[
  {
    "path": ".github/config/check_env.sh",
    "content": "#!/usr/bin/env bash\n\n# pwd\n# ls -al\n\npython --version\npython -c \"import numpy; print('numpy %s' % numpy.__version__)\"\npython -c \"import scipy; print('scipy %s' % scipy.__version__)\"\npython -c \"import pandas; print('pandas %s' % pandas.__version__)\"\npython -c \"import torch; print('pytorch %s' % torch.__version__)\"\npython -c \"import pymatgen; print('pymatgen %s' % pymatgen.__version__)\"\npython -c \"import rdkit; print('rdkit %s' % rdkit.__version__)\"\npython -c \"from rdkit import Chem; print(Chem)\"\n"
  },
  {
    "path": ".github/config/linux_win_env.yml",
    "content": "name: test\ndependencies:\n  - pandas>=1.1.3\n  - seaborn\n  - numpy\n  - scipy\n  - requests\n  - rdkit=2020.09\n  - scikit-learn\n  - scipy\n  - pytorch >=1.7.0,<2.0.0\n  - cpuonly\n  - pytest\n  - pytest-cov\n  - pymatgen>=2020.10.9\n  - ruamel.yaml\n  - tqdm\n  - mordred\n  - pip\n  - pip:\n      - OpenNMT-py==1.2\n      - Deprecated\n"
  },
  {
    "path": ".github/config/macos_env.yml",
    "content": "name: test\ndependencies:\n  - pandas>=1.1.3\n  - seaborn\n  - numpy\n  - scipy\n  - requests\n  - rdkit=2020.09\n  - scikit-learn\n  - scipy\n  - pytorch >=1.7.0,<2.0.0\n  - pytest\n  - pytest-cov\n  - pymatgen>=2020.10.9\n  - ruamel.yaml\n  - tqdm\n  - mordred\n  - pip\n  - pip:\n      - OpenNMT-py==1.2\n      - Deprecated\n"
  },
  {
    "path": ".github/config/matplotlibrc_agg",
    "content": "backend: Agg\n"
  },
  {
    "path": ".github/config/matplotlibrc_qtagg",
    "content": "backend: Qt5Agg\n"
  },
  {
    "path": ".github/fetch_test.txt",
    "content": "Test xenonpy.utils.Loader._fetch_data"
  },
  {
    "path": ".github/workflows/deploy_pypi.yml",
    "content": "name: Deploy PiPy\n\non:\n  push:\n    tags:\n      - v*\n\nenv:\n  MPLBACKEN: \"Agg\"\n\njobs:\n  test_ubuntu:\n    runs-on: ${{ matrix.os }}\n    strategy:\n      fail-fast: false\n      max-parallel: 4\n      matrix:\n        python-version: [3.7]\n        os: [\"ubuntu-20.04\"]\n\n    steps:\n      - uses: actions/checkout@v2\n\n      - name: Install Python ${{ matrix.python-version }} on ${{ matrix.os }}\n        uses: conda-incubator/setup-miniconda@v2\n        with:\n          auto-update-conda: true\n          auto-activate-base: false\n          activate-environment: test\n          mamba-version: \"*\"\n          channels: pytorch,conda-forge,defaults\n          environment-file: .github/config/linux_win_env.yml\n          python-version: ${{ matrix.python-version }}\n\n      - name: Check conda env\n        shell: bash -l {0}\n        run: .github/config/check_env.sh\n\n      - name: Build a binary wheel and a source tarball\n        shell: bash -l {0}\n        run: |\n          python setup.py bdist_wheel\n\n      - name: Publish distribution 📦 to PyPI\n        if: github.event_name == 'push' && startsWith(github.ref, 'refs/tags')\n        uses: pypa/gh-action-pypi-publish@master\n        with:\n          user: __token__\n          password: ${{ secrets.PYPI_API_TOKEN }}\n"
  },
  {
    "path": ".github/workflows/mac.yml",
    "content": "name: MacOS\n\non:\n  push:\n    branches:\n      - master\n    paths-ignore:\n      - \"conda_env/**\"\n      - \"devtools/**\"\n      - \"docs/**\"\n      - \"samples/**\"\n      - \"licenses/**\"\n      - \"hooks/**\"\n      - \".**\"\n      - \"!.github/**\"\n      - \"**.md\"\n      - \"**.yml\"\n      - \"**.txt\"\n      - \"**.in\"\n      - \"**.cfg\"\n  pull_request:\n    branches:\n      - master\n    paths-ignore:\n      - \"conda_env/**\"\n      - \"devtools/**\"\n      - \"docs/**\"\n      - \"samples/**\"\n      - \"licenses/**\"\n      - \"hooks/**\"\n      - \".**\"\n      - \"!.github/**\"\n      - \"**.md\"\n      - \"**.yml\"\n      - \"**.txt\"\n      - \"**.in\"\n      - \"**.cfg\"\n\nenv:\n  MPLBACKEN: \"Agg\"\n\njobs:\n  test_macos:\n    runs-on: ${{ matrix.os }}\n    strategy:\n      fail-fast: false\n      max-parallel: 6\n      matrix:\n        python-version: [3.7, 3.8, 3.9]\n        os: [\"macos-11.0\", \"macos-10.15\"]\n\n    steps:\n      - uses: actions/checkout@v2\n        with:\n          ref: ${{github.event.pull_request.head.ref}}\n          repository: ${{github.event.pull_request.head.repo.full_name}}\n\n      - name: Install Python ${{ matrix.python-version }} on ${{ matrix.os }}\n        uses: conda-incubator/setup-miniconda@v2\n        with:\n          auto-update-conda: true\n          auto-activate-base: false\n          activate-environment: test\n          mamba-version: \"*\"\n          channels: pytorch,conda-forge,defaults\n          environment-file: .github/config/macos_env.yml\n          python-version: ${{ matrix.python-version }}\n\n      - name: Check conda env\n        shell: bash -l {0}\n        run: .github/config/check_env.sh\n\n      - name: Install XenonPy\n        shell: bash -l {0}\n        run: |\n          pip install .\n\n      - name: Test XenonPy\n        shell: bash -l {0}\n        env:\n          api_key: ${{ secrets.api_key }}\n        run: |\n          pytest --cov=./ --cov-report=xml tests\n\n      - name: Upload coverage to Codecov\n        uses: codecov/codecov-action@v1\n        env:\n          OS: ${{ matrix.os }}\n          PYTHON: ${{ matrix.python-version }}\n        with:\n          env_vars: OS,PYTHON\n          fail_ci_if_error: false\n"
  },
  {
    "path": ".github/workflows/ubuntu.yml",
    "content": "name: Ubuntu\n\non:\n  push:\n    branches:\n      - master\n    paths-ignore:\n      - \"conda_env/**\"\n      - \"devtools/**\"\n      - \"docs/**\"\n      - \"samples/**\"\n      - \"licenses/**\"\n      - \"hooks/**\"\n      - \".**\"\n      - \"!.github/**\"\n      - \"**.md\"\n      - \"**.yml\"\n      - \"**.txt\"\n      - \"**.in\"\n      - \"**.cfg\"\n  pull_request:\n    branches:\n      - master\n    paths-ignore:\n      - \"conda_env/**\"\n      - \"devtools/**\"\n      - \"docs/**\"\n      - \"samples/**\"\n      - \"licenses/**\"\n      - \"hooks/**\"\n      - \".**\"\n      - \"!.github/**\"\n      - \"**.md\"\n      - \"**.yml\"\n      - \"**.txt\"\n      - \"**.in\"\n      - \"**.cfg\"\n\nenv:\n  MPLBACKEN: \"Agg\"\n\njobs:\n  test_ubuntu:\n    runs-on: ${{ matrix.os }}\n    strategy:\n      fail-fast: false\n      max-parallel: 6\n      matrix:\n        python-version: [3.7, 3.8, 3.9]\n        os: [\"ubuntu-18.04\", \"ubuntu-latest\"]\n\n    steps:\n      - uses: actions/checkout@v2\n        with:\n          ref: ${{github.event.pull_request.head.ref}}\n          repository: ${{github.event.pull_request.head.repo.full_name}}\n\n      - name: Install Python ${{ matrix.python-version }} on ${{ matrix.os }}\n        uses: conda-incubator/setup-miniconda@v2\n        with:\n          auto-update-conda: true\n          auto-activate-base: false\n          activate-environment: test\n          mamba-version: \"*\"\n          channels: pytorch,conda-forge,defaults\n          environment-file: .github/config/linux_win_env.yml\n          python-version: ${{ matrix.python-version }}\n\n      - name: Check conda env\n        shell: bash -l {0}\n        run: .github/config/check_env.sh\n\n      - name: Install XenonPy\n        shell: bash -l {0}\n        run: |\n          pip install .\n\n      - name: Test XenonPy\n        shell: bash -l {0}\n        env:\n          api_key: ${{ secrets.api_key }}\n        run: |\n          pytest --cov=./ --cov-report=xml tests\n\n      - name: Upload coverage to Codecov\n        uses: codecov/codecov-action@v1\n        env:\n          OS: ${{ matrix.os }}\n          PYTHON: ${{ matrix.python-version }}\n        with:\n          env_vars: OS,PYTHON\n          fail_ci_if_error: false\n"
  },
  {
    "path": ".github/workflows/win.yml",
    "content": "name: Windows\n\non:\n  push:\n    branches:\n      - master\n    paths-ignore:\n      - \"conda_env/**\"\n      - \"devtools/**\"\n      - \"docs/**\"\n      - \"samples/**\"\n      - \"licenses/**\"\n      - \"hooks/**\"\n      - \".**\"\n      - \"!.github/**\"\n      - \"**.md\"\n      - \"**.yml\"\n      - \"**.txt\"\n      - \"**.in\"\n      - \"**.cfg\"\n  pull_request:\n    branches:\n      - master\n    paths-ignore:\n      - \"conda_env/**\"\n      - \"devtools/**\"\n      - \"docs/**\"\n      - \"samples/**\"\n      - \"licenses/**\"\n      - \"hooks/**\"\n      - \".**\"\n      - \"!.github/**\"\n      - \"**.md\"\n      - \"**.yml\"\n      - \"**.txt\"\n      - \"**.in\"\n      - \"**.cfg\"\n\nenv:\n  MPLBACKEN: \"Agg\"\n\njobs:\n  test_win:\n    runs-on: ${{ matrix.os }}\n    strategy:\n      fail-fast: false\n      max-parallel: 3\n      matrix:\n        python-version: [3.7, 3.8, 3.9]\n        os: [\"windows-latest\"]\n\n    steps:\n      - uses: actions/checkout@v2\n        with:\n          ref: ${{github.event.pull_request.head.ref}}\n          repository: ${{github.event.pull_request.head.repo.full_name}}\n\n      - name: Install Python ${{ matrix.python-version }} on ${{ matrix.os }}\n        uses: conda-incubator/setup-miniconda@v2\n        with:\n          auto-update-conda: true\n          auto-activate-base: false\n          activate-environment: test\n          mamba-version: \"*\"\n          channels: pytorch,conda-forge,defaults\n          environment-file: .github/config/linux_win_env.yml\n          python-version: ${{ matrix.python-version }}\n\n      - name: Check conda env\n        shell: bash -l {0}\n        run: .github/config/check_env.sh\n\n      - name: Install XenonPy\n        shell: bash -l {0}\n        run: |\n          pip install .\n\n      - name: Test XenonPy\n        shell: bash -l {0}\n        env:\n          api_key: ${{ secrets.api_key }}\n        run: |\n          pytest --cov=./ --cov-report=xml tests\n\n      - name: Upload coverage to Codecov\n        uses: codecov/codecov-action@v1\n        env:\n          OS: ${{ matrix.os }}\n          PYTHON: ${{ matrix.python-version }}\n        with:\n          env_vars: OS,PYTHON\n          fail_ci_if_error: false\n"
  },
  {
    "path": ".gitignore",
    "content": "# Byte-compiled / optimized / DLL files\n__pycache__/\n*.py[cod]\n*$py.class\n\n# C extensions\n*.so\n\n# Distribution / packaging\n.Python\nbuild/\n_build/\ndevelop-eggs/\ndist/\ndownloads/\neggs/\n.eggs/\nlib/\nlib64/\nparts/\nsdist/\nvar/\nwheels/\n*.egg-info/\n.installed.cfg\n*.egg\nMANIFEST\n\n# PyInstaller\n#  Usually these files are written by a python script from a template\n#  before PyInstaller builds the exe, so as to inject date/other infos into it.\n*.manifest\n*.spec\n\n# Installer logs\npip-log.txt\npip-delete-this-directory.txt\n\n# Unit test / coverage reports\nhtmlcov/\n.tox/\n.coverage\n.coverage.*\n.cache\nnosetests.xml\ncoverage.xml\n*.cover\n.hypothesis/\n\n# Translations\n*.mo\n*.pot\n\n# Django stuff:\n*.log\nlocal_settings.py\n\n# Flask stuff:\ninstance/\n.webassets-cache\n\n# Scrapy stuff:\n.scrapy\n\n# Sphinx documentation\ndocs/_build/\n\n# PyBuilder\ntarget/\n\n# Jupyter Notebook\n.ipynb_checkpoints\n\n# pyenv\n.python-version\n\n# celery beat schedule file\ncelerybeat-schedule\n\n# SageMath parsed files\n*.sage.py\n\n# Environments\n.env\n.venv\nenv/\nvenv/\nENV/\nenv.bak/\nvenv.bak/\n\n# Spyder project settings\n.spyderproject\n.spyproject\n\n# Rope project settings\n.ropeproject\n\n# mkdocs documentation\n/site\n\n# mypy\n.mypy_cache/\n\n# custom\n# *.csv\ntags\n.idea/\n.vscode/\npyinstrument\n\n.pytest_cache/\n/playground/\n.DS_Store\n"
  },
  {
    "path": ".pylintrc",
    "content": "# Enable the message, report, category or checker with the given id(s). You can\n# either give multiple identifier separated by comma (,) or put this option\n# multiple time.\n#enable=\n\n# Disable the message, report, category or checker with the given id(s). You\n# can either give multiple identifier separated by comma (,) or put this option\n# multiple time (only on the command line, not in the configuration file where\n# it should appear only once).\n#disable=\n\n[DESIGN]\n# custom\nmax-attributes=15\nmax-line-length=120"
  },
  {
    "path": ".readthedocs.yml",
    "content": "# Required\nversion: 2\n\n# Build documentation in the docs/ directory with Sphinx\nsphinx:\n  configuration: docs/source/conf.py\n\nconda:\n  environment: conda_env/devtools/rtd_env.yml\n\nbuild:\n  os: \"ubuntu-20.04\"\n  tools:\n    python: \"mambaforge-4.10\"\n"
  },
  {
    "path": ".style.yapf",
    "content": "[style]\nbased_on_style = google\n\n# The column limit.\ncolumn_limit=120\n"
  },
  {
    "path": "Dockerfile",
    "content": "FROM yoshidalab/base:cuda11\n\nARG key\nENV api_key=$key\n\n# install xenonpy locally\nWORKDIR /opt/xenonpy\nCOPY . .\nRUN sudo chown -R user:user /opt && find . | grep -E \"(__pycache__|\\.pyc|\\.pyo$)\" | xargs rm -rf && \\\n    pip install --user -v .  && pytest tests -v && export api_key=\"\"\n\nEXPOSE 8888\n\nWORKDIR /workspace\nCMD [ \"jupyter\" , \"lab\", \"--ip=0.0.0.0\", \"--no-browser\", \"--port=8888\", \"--allow-root\"]\n"
  },
  {
    "path": "LICENSE",
    "content": "Copyright (c) 2021 TsumiNa. All rights reserved.\n\nRedistribution and use in source and binary forms, with or without\nmodification, are permitted provided that the following conditions are\nmet:\n\n   * Redistributions of source code must retain the above copyright\nnotice, this list of conditions and the following disclaimer.\n   * Redistributions in binary form must reproduce the above\ncopyright notice, this list of conditions and the following disclaimer\nin the documentation and/or other materials provided with the\ndistribution.\n   * Neither the name of Google Inc. nor the names of its\ncontributors may be used to endorse or promote products derived from\nthis software without specific prior written permission.\n\nTHIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS\n\"AS IS\" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT\nLIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR\nA PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT\nOWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,\nSPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT\nLIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,\nDATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY\nTHEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT\n(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE\nOF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE."
  },
  {
    "path": "MANIFEST.in",
    "content": "include *.rst LICENSE.rst docs/source/changes.rst requirement*.txt\nrecursive-include xenonpy *.py *.json *.yml *.txt\nrecursive-exclude tests/*.*\nrecursive-include licences *\n"
  },
  {
    "path": "Makefile",
    "content": "export SHELL := /bin/bash\n\ndoctest:\n\tpytest --doctest-modules xenonpy\n\nunittest:\n\tpytest tests\n\nlint:\n\tpylint xenonpy\n"
  },
  {
    "path": "README.md",
    "content": "<p align=\"center\">\n  <img height=\"200\" src=\"https://github.com/yoshida-lab/XenonPy/blob/master/logo.png\" alt=\"xenonpy\">\n</p>\n\n# NOTES\n\n> **To all those who have purchased the book [マテリアルズインフォマティクス](https://www.kyoritsu-pub.co.jp/book/b10013510.html) published by [KYORITSU SHUPPAN](https://www.kyoritsu-pub.co.jp/): The link to the exercises has changed to https://github.com/yoshida-lab/XenonPy/tree/master/mi_book. Please follow the new link to access all these exercises.**\n\n> **Our XenonPy.MDL is under indefinite technical maintenance due to some security issues found during a server upgrade. Our current plan is to completely re-structure the model library server, but the completion time is unclear. In the mean time, if you would like to get access to the pretrained models, please contact us directly with your purpose of using the models and your affiliation. We will try to provide necessary aid to access part of the model library based on specific needs. Sorry for all the inconvenience. We will make further announcement here when a more concrete recovery schedule is available.**\n\n\n**We apologize for the inconvenience** 🥺🙏🙇\n\n# XenonPy project\n\n[![MacOS](https://github.com/yoshida-lab/XenonPy/workflows/MacOS/badge.svg)](https://github.com/yoshida-lab/XenonPy/actions?query=workflow%3AMacOS)\n[![Windows](https://github.com/yoshida-lab/XenonPy/workflows/Windows/badge.svg)](https://github.com/yoshida-lab/XenonPy/actions?query=workflow%3AWindows)\n[![Ubuntu](https://github.com/yoshida-lab/XenonPy/workflows/Ubuntu/badge.svg)](https://github.com/yoshida-lab/XenonPy/actions?query=workflow%3AUbuntu)\n[![Documentation Status](https://readthedocs.org/projects/xenonpy/badge/?version=latest)](https://xenonpy.readthedocs.io/en/latest/?badge=latest)\n[![codecov](https://codecov.io/gh/yoshida-lab/XenonPy/branch/master/graph/badge.svg)](https://codecov.io/gh/yoshida-lab/XenonPy)\n[![Version](https://img.shields.io/github/tag/yoshida-lab/XenonPy.svg?maxAge=360)](https://github.com/yoshida-lab/XenonPy/releases/latest)\n[![Python Versions](https://img.shields.io/pypi/pyversions/xenonpy.svg)](https://pypi.org/project/xenonpy/)\n[![Downloads](https://pepy.tech/badge/xenonpy)](https://pepy.tech/project/xenonpy)\n![PyPI - Downloads](https://img.shields.io/pypi/dm/xenonpy.svg?label=PiPy%20downloads)\n\n**XenonPy** is a Python library that implements a comprehensive set of machine learning tools\nfor materials informatics. Its functionalities partially depend on PyTorch and R.\nThe current release provides some limited modules:\n\n-   Interface to public materials database\n-   Library of materials descriptors (compositional/structural descriptors)\n-   Pre-trained model library **XenonPy.MDL** (v0.1.0.beta, 2019/8/7: more than 140,000 models (include private models) in 35 properties of small molecules, polymers, and inorganic compounds)\n-   Machine learning tools.\n-   Transfer learning using the pre-trained models in XenonPy.MDL\n\nXenonPy inspired by matminer: https://hackingmaterials.github.io/matminer/.\n\nXenonPy is a open source project https://github.com/yoshida-lab/XenonPy.\n\nSee our documents for details: http://xenonpy.readthedocs.io\n\n## Publications\n\n1. H. Ikebata, K. Hongo, T. Isomura, R. Maezono, and R. Yoshida, “Bayesian molecular design with a chemical language model,” J Comput Aided Mol Des, vol. 31, no. 4, pp. 379–391, Apr. 2017, doi: 10/ggpx8b.\n2. S. Wu et al., “Machine-learning-assisted discovery of polymers with high thermal conductivity using a molecular design algorithm,” npj Computational Materials, vol. 5, no. 1, pp. 66–66, Dec. 2019, doi: 10.1038/s41524-019-0203-2.\n3. S. Wu, G. Lambard, C. Liu, H. Yamada, and R. Yoshida, “iQSPR in XenonPy: A Bayesian Molecular Design Algorithm,” Mol. Inform., vol. 39, no. 1–2, p. 1900107, Jan. 2020, doi: 10.1002/minf.201900107.\n4. H. Yamada et al., “Predicting Materials Properties with Little Data Using Shotgun Transfer Learning,” ACS Cent. Sci., vol. 5, no. 10, pp. 1717–1730, Oct. 2019, doi: 10.1021/acscentsci.9b00804.\n5. S. Ju et al., “Exploring diamondlike lattice thermal conductivity crystals via feature-based transfer learning,” Phys. Rev. Mater., vol. 5, no. 5, p. 053801, May 2021, doi: 10.1103/physrevmaterials.5.053801.\n6. C. Liu et al., “Machine Learning to Predict Quasicrystals from Chemical Compositions,” Adv. Mater., vol. 33, no. 36, p. 2102507, Sep. 2021, doi: 10.1002/adma.202102507.\n\n## XenonPy images (deprecated)\n\n> Docker has introduced a new [Subscription Service Agreement](https://www.docker.com/legal/docker-subscription-service-agreement) which requires organizations with more than 250 employees or more than $10 million in revenue to buy a paid subscription.\n> Since the fact that Docker company has been changed their policy to business first mode, we decided to drop the prebuilt Docker images service.\n\n[XenonPy base images](https://hub.docker.com/repository/docker/yoshidalab/base) packed a lot of useful packages for materials informatics using.\nThe following table list some core packages in XenonPy images.\n\n| Package        | Version   |\n| -------------- | --------- |\n| `PyTorch`      | 1.7.1     |\n| `tensorly`     | 0.5.0     |\n| `pymatgen`     | 2021.2.16 |\n| `matminer`     | 0.6.2     |\n| `mordred`      | 1.2.0     |\n| `scipy`        | 1.6.0     |\n| `scikit-learn` | 0.24.1    |\n| `xgboost`      | 1.3.0     |\n| `ngboost`      | 0.3.7     |\n| `fastcluster`  | 1.1.26    |\n| `pandas`       | 1.2.2     |\n| `rdkit`        | 2020.09.4 |\n| `jupyter`      | 1.0.0     |\n| `seaborn`      | 0.11.1    |\n| `matplotlib`   | 3.3.4     |\n| `OpenNMT-py`   | 1.2.0     |\n| `Optuna`       | 2.3.0     |\n| `plotly`       | 4.11.0    |\n| `ipympl`       | 0.5.8     |\n\n## Requirements\n\nIn order to use this image you must have Docker Engine installed. Instructions\nfor setting up Docker Engine are\n[available on the Docker website](https://docs.docker.com/engine/installation/).\n\n### CUDA requirements\n\nIf you have a CUDA-compatible NVIDIA graphics card, you can use a CUDA-enabled\nversion of the PyTorch image to enable hardware acceleration. This **only** can be\nused in Ubuntu Linux.\n\nFirstly, ensure that you install the appropriate NVIDIA drivers and libraries.\nIf you are running Ubuntu, you can install proprietary NVIDIA drivers\n[from the PPA](https://launchpad.net/~graphics-drivers/+archive/ubuntu/ppa)\nand CUDA [from the NVIDIA website](https://developer.nvidia.com/cuda-downloads).\n\nYou will also need to install `nvidia-docker2` to enable GPU device access\nwithin Docker containers. This can be found at\n[NVIDIA/nvidia-docker](https://github.com/NVIDIA/nvidia-docker).\n\n## Usage\n\nPre-built xenonpy images are available on Docker Hub under the name\n[yoshidalab/xenonpy](https://hub.docker.com/r/yoshidalab/xenonpy/). For example,\nyou can pull the CUDA 10.1 version with:\n\n```bash\ndocker pull yoshidalab/xenonpy:cuda10\n```\n\nThe table below lists software versions for each of the currently supported\nDocker image tags .\n\n| Image tag | CUDA | PyTorch |\n| --------- | ---- | ------- |\n| `latest`  | 11.0 | 1.7.1   |\n| `cpu`     | None | 1.7.1   |\n| `cuda11`  | 11.0 | 1.7.1   |\n| `cuda10`  | 10.2 | 1.7.1   |\n| `cuda9`   | 9.2  | 1.7.1   |\n\n### Running XenonPy\n\nIt is possible to run XenonPy inside a container.\nUsing xenonpy with jupyter is very easy, you could run it with\nthe following command:\n\n```sh\ndocker run --rm -it \\\n  --runtime=nvidia \\\n  --ipc=host \\\n  --publish=\"8888:8888\" \\\n  --volume=$HOME/.xenonpy:/home/user/.xenonpy \\\n  --volume=<path/to/your/workspace>:/workspace \\\n  -e NVIDIA_VISIBLE_DEVICES=0 \\\n  yoshidalab/xenonpy\n```\n\nHere's a description of the Docker command-line options shown above:\n\n-   `--runtime=nvidia`: Required if using CUDA, optional otherwise. Passes the\n    graphics card from the host to the container. **Optional, based on your usage**.\n-   `--ipc=host`: Required if using multiprocessing, as explained at\n    <https://github.com/pytorch/pytorch#docker-image.> **Optional**\n-   `--publish=\"8888:8888\"`: Publish container's port 8888 to the host. **Needed**\n-   `--volume=$Home/.xenonpy:/home/user/.xenonpy`: Mounts\n    the XenonPy root directory into the container. **Optional, but highly recommended**.\n-   `--volume=<path/to/your/workspace>:/workspace`: Mounts\n    the your working directory into the container. **Optional, but highly recommended**.\n-   `-e NVIDIA_VISIBLE_DEVICES=0`: Sets an environment variable to restrict which\n    graphics cards are seen by programs running inside the container. Set to `all`\n    to enable all cards. Optional, defaults to all.\n\nYou may wish to consider using [Docker Compose](https://docs.docker.com/compose/)\nto make running containers with many options easier. At the time of writing,\nonly version 2.3 of Docker Compose configuration files supports the `runtime`\noption.\n\n## Copyright and license\n\n©Copyright 2021 The XenonPy project, all rights reserved.\nReleased under the `BSD-3 license`.\n"
  },
  {
    "path": "conda_env/cpu.yml",
    "content": "channels:\n  - pytorch\n  - conda-forge\ndependencies:\n  # Number\n  - numpy\n  - scipy\n  - pandas\n\n  # Mol/Crystall\n  - pymatgen\n  - ase\n  - rdkit\n  - matminer\n  - matid\n\n  # Plotting\n  - seaborn\n  - matplotlib\n  - plotly\n\n  # Machine larning\n  - scikit-learn\n  - imbalanced-learn\n  - optuna\n  - umap-learn\n  - pytorch >=2.0.0,<3.0.0\n  - cpuonly\n  - torchvision\n  - torchaudio\n  - transformers\n  - diffusers\n\n  # Others\n  - nodejs\n  - jupyterlab\n  - jupyterlab-lsp\n  - ipywidgets\n  - python-lsp-server\n  - shapely\n  - requests\n  - ruamel.yaml\n  - joblib\n  - tqdm\n  - Deprecated\n  - fsspec\n  - emmet-core\n  - peewee\n  - pip\n  - pip:\n    - xenonpy\n"
  },
  {
    "path": "conda_env/cuda118.yml",
    "content": "channels:\n  - pytorch\n  - nvidia\n  - conda-forge\ndependencies:\n  # Number\n  - numpy\n  - scipy\n  - pandas\n\n  # Mol/Crystall\n  - pymatgen\n  - ase\n  - rdkit\n  - matminer\n  - matid\n\n  # Plotting\n  - seaborn\n  - matplotlib\n  - plotly\n\n  # Machine larning\n  - scikit-learn\n  - imbalanced-learn\n  - optuna\n  - umap-learn\n  - pytorch >=2.0.0,<3.0.0\n  - pytorch-cuda=11.8\n  - torchvision\n  - torchaudio\n  - transformers\n  - diffusers\n\n  # Others\n  - nodejs\n  - jupyterlab\n  - jupyterlab-lsp\n  - ipywidgets\n  - python-lsp-server\n  - shapely\n  - requests\n  - ruamel.yaml\n  - joblib\n  - tqdm\n  - Deprecated\n  - fsspec\n  - emmet-core\n  - peewee\n  - pip\n  - pip:\n    - xenonpy\n"
  },
  {
    "path": "conda_env/cuda121.yml",
    "content": "channels:\n  - pytorch\n  - nvidia\n  - conda-forge\ndependencies:\n  # Number\n  - numpy\n  - scipy\n  - pandas\n\n  # Mol/Crystall\n  - pymatgen\n  - ase\n  - rdkit\n  - matminer\n  - matid\n\n  # Plotting\n  - seaborn\n  - matplotlib\n  - plotly\n\n  # Machine larning\n  - scikit-learn\n  - imbalanced-learn\n  - optuna\n  - umap-learn\n  - pytorch >=2.0.0,<3.0.0\n  - pytorch-cuda=12.1\n  - torchvision\n  - torchaudio\n  - transformers\n  - diffusers\n\n  # Others\n  - nodejs\n  - jupyterlab\n  - jupyterlab-lsp\n  - ipywidgets\n  - python-lsp-server\n  - shapely\n  - requests\n  - ruamel.yaml\n  - joblib\n  - tqdm\n  - Deprecated\n  - fsspec\n  - emmet-core\n  - peewee\n  - pip\n  - pip:\n    - xenonpy\n"
  },
  {
    "path": "conda_env/devtools/extra_env.yml",
    "content": "channels:\n  - conda-forge\ndependencies:\n  - yapf\n  - pytest\n  - pytest-cov\n  - pylint\n  - sphinx\n  - sphinx_rtd_theme\n  - nbconvert!=5.4\n  - nbsphinx\n  - sphinx-autodoc-typehints\n  - pip:\n      - Deprecated\n      - OpenNMT-py==1.2\n"
  },
  {
    "path": "conda_env/devtools/rtd_env.yml",
    "content": "channels:\n  - pytorch\n  - conda-forge\ndependencies:\n  - python=3.8\n  - rdkit=2020.09\n  - pytorch >=1.7.0,<2.0.0\n  - cpuonly\n  - pandas>=1.1.3\n  - scikit-learn>=0.23.0\n  - scipy>=1.5.2\n  - pymatgen>=2020.10.9\n  - sphinx-autodoc-typehints\n  - tqdm\n  - numpy\n  - seaborn\n  - mordred\n  - ruamel.yaml\n  - nbsphinx\n  - joblib\n  - requests\n  - pip\n  - pip:\n      - Deprecated\n      # - --requirement rtd_requirements.txt\n"
  },
  {
    "path": "conda_env/osx.yml",
    "content": "channels:\n  - pytorch\n  - conda-forge\ndependencies:\n  # Number\n  - numpy\n  - scipy\n  - pandas\n\n  # Mol/Crystall\n  - pymatgen\n  - ase\n  - rdkit\n  - matminer\n    # - mordred\n  - matid\n\n  # Plotting\n  - seaborn\n  - matplotlib\n  - plotly\n\n  # Machine larning\n  - scikit-learn\n  - imbalanced-learn\n  - optuna\n  - umap-learn\n  - pytorch::pytorch >=2.0.0,<3.0.0\n  - torchvision\n  - torchaudio\n  - transformers\n  - diffusers\n\n  # Others\n  - nodejs\n  - jupyterlab\n  - jupyterlab-lsp\n  - ipywidgets\n  - python-lsp-server\n  - shapely\n  - requests\n  - ruamel.yaml\n  - joblib\n  - tqdm\n  - Deprecated\n  - fsspec\n  - emmet-core\n  - peewee\n  - pip\n  - pip:\n    - xenonpy\n"
  },
  {
    "path": "docker/cpu/Dockerfile",
    "content": "FROM yoshidalab/base:cpu\n\n# install xenonpy locally\nWORKDIR /opt/xenonpy\nCOPY . .\nRUN sudo chown -R user:user /opt && find . | grep -E \"(__pycache__|\\.pyc|\\.pyo$)\" | xargs rm -rf && \\\n    pip install --user -v .\n\nEXPOSE 8888\n\nWORKDIR /workspace\nCMD [ \"jupyter\" , \"lab\", \"--ip=0.0.0.0\", \"--no-browser\", \"--port=8888\", \"--allow-root\"]"
  },
  {
    "path": "docker/cuda10/Dockerfile",
    "content": "FROM yoshidalab/base:cuda10\n\n# install xenonpy locally\nWORKDIR /opt/xenonpy\nCOPY . .\nRUN sudo chown -R user:user /opt && find . | grep -E \"(__pycache__|\\.pyc|\\.pyo$)\" | xargs rm -rf && \\\n    pip install --user -v .\n\nEXPOSE 8888\n\nWORKDIR /workspace\nCMD [ \"jupyter\" , \"lab\", \"--ip=0.0.0.0\", \"--no-browser\", \"--port=8888\", \"--allow-root\"]"
  },
  {
    "path": "docker/cuda11/Dockerfile",
    "content": "FROM yoshidalab/base:cuda11\n\n# install xenonpy locally\nWORKDIR /opt/xenonpy\nCOPY . .\nRUN sudo chown -R user:user /opt && find . | grep -E \"(__pycache__|\\.pyc|\\.pyo$)\" | xargs rm -rf && \\\n    pip install --user -v .\n\nEXPOSE 8888\n\nWORKDIR /workspace\nCMD [ \"jupyter\" , \"lab\", \"--ip=0.0.0.0\", \"--no-browser\", \"--port=8888\", \"--allow-root\"]"
  },
  {
    "path": "docker/cuda9/Dockerfile",
    "content": "FROM yoshidalab/base:cuda9\n\n# install xenonpy locally\nWORKDIR /opt/xenonpy\nCOPY . .\nRUN sudo chown -R user:user /opt && find . | grep -E \"(__pycache__|\\.pyc|\\.pyo$)\" | xargs rm -rf && \\\n    pip install --user -v .\n\nEXPOSE 8888\n\nWORKDIR /workspace\nCMD [ \"jupyter\" , \"lab\", \"--ip=0.0.0.0\", \"--no-browser\", \"--port=8888\", \"--allow-root\"]"
  },
  {
    "path": "docs/Makefile",
    "content": "# Minimal makefile for Sphinx documentation\n#\n\n# You can set these variables from the command line.\nSPHINXOPTS    =\nSPHINXBUILD   = sphinx-build\nSPHINXPROJ    = XenonPy\nSOURCEDIR     = source\nBUILDDIR      = build\n\n# Put it first so that \"make\" without argument is like \"make help\".\nhelp:\n\t@$(SPHINXBUILD) -M help \"$(SOURCEDIR)\" \"$(BUILDDIR)\" $(SPHINXOPTS) $(O)\n\n.PHONY: help Makefile\n\n# Catch-all target: route all unknown targets to Sphinx using the new\n# \"make mode\" option.  $(O) is meant as a shortcut for $(SPHINXOPTS).\n%: Makefile\n\t@$(SPHINXBUILD) -M $@ \"$(SOURCEDIR)\" \"$(BUILDDIR)\" $(SPHINXOPTS) $(O)"
  },
  {
    "path": "docs/make.bat",
    "content": "@ECHO OFF\n\npushd %~dp0\n\nREM Command file for Sphinx documentation\n\nif \"%SPHINXBUILD%\" == \"\" (\n\tset SPHINXBUILD=sphinx-build\n)\nset SOURCEDIR=source\nset BUILDDIR=build\nset SPHINXPROJ=XenonPy\n\nif \"%1\" == \"\" goto help\n\n%SPHINXBUILD% >NUL 2>NUL\nif errorlevel 9009 (\n\techo.\n\techo.The 'sphinx-build' command was not found. Make sure you have Sphinx\n\techo.installed, then set the SPHINXBUILD environment variable to point\n\techo.to the full path of the 'sphinx-build' executable. Alternatively you\n\techo.may add the Sphinx directory to PATH.\n\techo.\n\techo.If you don't have Sphinx installed, grab it from\n\techo.http://sphinx-doc.org/\n\texit /b 1\n)\n\n%SPHINXBUILD% -M %1 %SOURCEDIR% %BUILDDIR% %SPHINXOPTS%\ngoto end\n\n:help\n%SPHINXBUILD% -M help %SOURCEDIR% %BUILDDIR% %SPHINXOPTS%\n\n:end\npopd\n"
  },
  {
    "path": "docs/source/_static/css/container.css",
    "content": "#container {\n    /* min-height: 100vh; */\n    display: flex;\n}\n.left {\n    width: 30vw;\n    /* flex: 1; */\n    padding: .5rem;\n    overflow: auto;\n}\n.right {\n    width: 70vw;\n    /* flex: 1; */\n    padding: 0.5rem;\n    overflow: auto;\n}"
  },
  {
    "path": "docs/source/_static/placehoder",
    "content": ""
  },
  {
    "path": "docs/source/_templates/layout.html",
    "content": "{% extends \"!layout.html\" %}\n{% set css_files = css_files + [ \"_static/css/hatnotes.css\" ] %}"
  },
  {
    "path": "docs/source/_templates/placehoder",
    "content": ""
  },
  {
    "path": "docs/source/api.rst",
    "content": "------------------\nIndices and tables\n------------------\n* :ref:`genindex`\n* :ref:`modindex`\n* :ref:`search`\n"
  },
  {
    "path": "docs/source/books.rst",
    "content": "========================================================================\nExercises in \"Materials Informatics\" (KYORITSU SHUPPAN, in Japanese)\n========================================================================\n\n.. raw:: html\n\n    <div class=\"admonition note\">\n    <p class=\"admonition-title\">Note</p>\n    <p class=\"admonition-body\">\n        <div id=\"container\">\n            <div class=\"left\">\n                <a href=\"https://www.kyoritsu-pub.co.jp/book/b10013510.html\">\n                    <img src=\"https://hondana-image.s3.amazonaws.com/book/image/10013510/normal_efd4a971-dec1-47ca-8d29-d448f099d7f6.jpg\" alt=\"マテリアルズインフォマティクス\">\n                </a>\n            </div>\n            <div class=\"right\">\n                <p>共立出版発行の書籍「<a class=\"reference external\" href=\"https://www.kyoritsu-pub.co.jp/book/b10013510.html\">マテリアルズインフォマティクス</a>」をご購入いただいた皆様へ:</p>\n                <p>演習問題のリンクが <a class=\"reference external\" href=\"https://github.com/yoshida-lab/XenonPy/tree/master/mi_book\">https://github.com/yoshida-lab/XenonPy/tree/master/mi_book</a> に変更になりました。\n                新しいリンクから練習問題にアクセスしてください。</p>\n                <p>ご不便をおかけして申し訳ありません。</p>\n            </div>\n        </div>\n    </div>\n\n\nマテリアルズインフォマティクス: https://www.kyoritsu-pub.co.jp/book/b10013510.html\n\n    * 著者: 伊藤 聡 編・ 吉田 亮 著・ 劉 暢 著・ Stephen Wu 著・ 野口 瑶 著・ 山田 寛尚 著・ 赤木 和人 著・ 大林 一平 著・ 山下 智樹 著 \n    * 出版社: 共立出版\n    * 発売日: 2022/08/22\n    * ISBN: 9784320072022\n\n\n.. _マテリアルズインフォマティクス: https://www.kyoritsu-pub.co.jp/book/b10013510.html\n.. _KYORITSU SHUPPAN: https://www.kyoritsu-pub.co.jp/"
  },
  {
    "path": "docs/source/changes.rst",
    "content": ".. role:: raw-html(raw)\n    :format: html\n\n=======\nChanges\n=======\n\nv0.6.2 ~ v0.6.3\n===============\n**Bug fix**\n\n* some minor fixes.\n\nv0.6.1\n======\n\n**Breaking change**\n\n* ``GaussianNLLLoss`` has been removed from ``xenonpy.model.training.loss``. ( `#249`_ )\n\n.. _#249: https://github.com/yoshida-lab/XenonPy/pull/249\n\nv0.6.0\n======\n\n**Bug fix**\n\n* Fix a bug in the ``Scaler`` class. ( `#243`_ )\n\n**New features**\n\n* Add ``average`` option to the ``classification_metrics`` function. Now users can decide how to calculate scores for multilabel tasks. ( `#240`_ )\n* Add ``only_best_states`` option to the ``Persist`` class. If ``True``, ``Persist`` will only save the best state to reduce the storage space. ( `#233`_ )\n* Add ``warming_up`` option to the ``Validator`` class. ( `#238`_ )\n\n.. _#243: https://github.com/yoshida-lab/XenonPy/pull/243\n.. _#240: https://github.com/yoshida-lab/XenonPy/pull/240\n.. _#233: https://github.com/yoshida-lab/XenonPy/pull/233\n.. _#238: https://github.com/yoshida-lab/XenonPy/pull/238\n\nv0.5.2\n======\n\n**Bug fix**\n\n* some minor fixes.\n\nv0.5.1\n======\n\n**Bug fix**\n\n* update the pip install dependencies in ``requirements.txt``. ( `#226`_ )\n\n**Enhance**\n\n* Add ``rdkit v2020.09`` support for fingerprint descriptors. ( `#228`_ )\n* Add return probability support for ``model.extension.TensorConverter``. ( `#229`_ )\n\n.. _#226: https://github.com/yoshida-lab/XenonPy/pull/226\n.. _#228: https://github.com/yoshida-lab/XenonPy/pull/228\n.. _#229: https://github.com/yoshida-lab/XenonPy/pull/229\n\nv0.5.0\n======\n\n**Breaking change**\n\n* Replace ``xenonpy.datatools.BoxCox`` with ``xenonpy.datatools.PowerTransformer``. ( `#222`_ )\n\n**New features**\n\n* Add ``xenonpy.datatools.PowerTransformer`` to provide *yeo-johnson* and *box-cox* transformation through the ``sklearn.preprocessing.PowerTransformer``. ( `#222`_ )\n* Add new contribution ``ISMD`` by `Qi`_, a new class of ``BaseProposal`` that allows generation of molecules based on virtual reaction of reactants in a predefined reactant pool. ( `#208`_ )\n* Add classifier training support for the ``xenonpy.model.Trainer``. ( `#184`_ )\n* Add ``IQSPR4DF`` to support ``pandas.DataFrame`` input to iQSPR.\n* Add ``LayeredFP``, ``PatternFP``, and ``MHFP`` (new rdkit fingerprints).\n\n**Enhance**\n\n* ``BaseFeaturizer.transform`` now supports ``pandas.DataFrame`` as input where relevant columns for descriptor calculation can be specified through ``target_col``.\n* ``BaseDescriptor.transform`` and ``BaseLogLikelihoodSet.log_likelihood`` now automatically check if any group names occur in the input ``pandas.DataFrame`` column names. If not, the entire ``pandas.DataFrame`` will be passed to the corresponding ``BaseFeaturizer`` and ``BaseLogLikelihood``, respectively.\n* Allow using custom elemental information matrix in ``xenonpy.descriptor.Compositions`` descriptor. ( `#221`_ )\n* Use ``joblib.parallel`` as default parallel backend. ( `#191`_, `#220`_ )\n* ``Splliter.split`` method now support python list as input. ( `#194`_ )\n* Allow user specific index for ``DescriptorHeatmap``. ( `#44`_ )\n* Allow control of number of layers to be extracted in ``FrozenFeaturizer``. ( `#174`_ )\n* ``bit_per_entry`` option is added to ``RDKitFP`` and ``AtomPairFP`` to allow control of number of bits to represent one fingerprint entry.\n* ``counting`` option is added to ``RDKitFP``, ``AtomPairFP``, ``TopologicalTorsionFP``, ``FCFP`` and ``ECFP`` to support returning counts of each fingerprint entry.\n* Column names of ``DescriptorFeature`` is updated to be consistent with the rdkit naming.\n\n\n**Infrastructure improve**\n\n* Move CI to github action. ( `#195`_ )\n* Move to readthedocs version 2. ( `#206`_ )\n\n.. _Qi: https://github.com/qi-zh\n.. _#222: https://github.com/yoshida-lab/XenonPy/pull/222\n.. _#208: https://github.com/yoshida-lab/XenonPy/pull/208\n.. _#221: https://github.com/yoshida-lab/XenonPy/pull/221\n.. _#184: https://github.com/yoshida-lab/XenonPy/pull/184\n.. _#195: https://github.com/yoshida-lab/XenonPy/pull/195\n.. _#206: https://github.com/yoshida-lab/XenonPy/pull/206\n.. _#191: https://github.com/yoshida-lab/XenonPy/pull/191\n.. _#220: https://github.com/yoshida-lab/XenonPy/pull/220\n.. _#194: https://github.com/yoshida-lab/XenonPy/pull/194\n.. _#44: https://github.com/yoshida-lab/XenonPy/pull/44\n.. _#174: https://github.com/yoshida-lab/XenonPy/pull/174\n\n\nv0.4.2\n======\n\n**Bug fix**\n\n* fix ``set_param`` method dose not set the children in ``BaseDescriptor`` and ``NGram``. ( `#163`_, `#159`_ )\n\n**Enhance**\n\n* Setting ``optimizer``, ``loss_func``, and etc. can be done in ``Trainer.load``. ( `#158`_ )\n* Improve docs.  ( `#155`_ )\n\n.. _#163: https://github.com/yoshida-lab/XenonPy/issues/163\n.. _#159: https://github.com/yoshida-lab/XenonPy/issues/159\n.. _#158: https://github.com/yoshida-lab/XenonPy/issues/159\n.. _#155: https://github.com/yoshida-lab/XenonPy/issues/159\n\n\nv0.4.0\n======\n\n**Breaking change**\n\n* Remove ``xenonpy.datatools.MDL``.\n* Remove ``xenonpy.model.nn`` modules. Part of them will be kept until v1.0.0 for compatible.\n\n**New features**\n\n* Add ``xenonpy.mdl`` modules for XenonPy.MDL access.\n* Add ``xenonpy.model.training`` modules for model training.\n\n\nv0.3.6\n======\n\n**Breaking change**\n\n* Renamed ``BayesianRidgeEstimator`` to ``GaussianLogLikelihood``.\n* Removed the ``estimators`` property from ``BayesianRidgeEstimator``.\n* Added ``predict`` method into ``GaussianLogLikelihood``.\n\n\nv0.3.5\n======\n\n**Enhanced**\n\n* Added version specifiers to the *requirements.txt* file.\n\nv0.3.4\n======\n\n**Bug fix**\n\n* Fixed a critical error in ``BayesianRidgeEstimator`` when calculating the loglikelihood. ( `#124`_ )\n\n.. _#124: https://github.com/yoshida-lab/XenonPy/issues/124\n\nv0.3.3\n======\n\n**Bug fix**\n\n* fix *mp_ids.txt* not exist error when trying to build the sample data using ``preset.build``.\n\nv0.3.2\n======\n\n**Enhanced**\n\n* Updated sample codes.\n* Added progress bar for ngram training. ( `#93`_ )\n* Added error handling to NGram when generating new SMILES. ( `#97`_ )\n\n**CI**\n\n* Removed python 3.5 support. ( `#95`_ )\n* Added Appveyor CI for windows tests. ( `#90`_ )\n\n.. _#93: https://github.com/yoshida-lab/XenonPy/issues/93\n.. _#97: https://github.com/yoshida-lab/XenonPy/issues/97\n.. _#95: https://github.com/yoshida-lab/XenonPy/issues/95\n.. _#90: https://github.com/yoshida-lab/XenonPy/issues/90\n\n\nv0.3.1\n======\n\n**Enhanced**\n\n* Added tutorials for main modules. ( `#79`_ )\n\n.. _#79: https://github.com/yoshida-lab/XenonPy/issues/79\n\n\nv0.3.0\n======\n\n**Breaking changes**:\n\n* Removed Built-in data ``mp_inorganic``, ``mp_structure``, ``oqmd_inorganic`` and ``oqmd_structure``. ( `#12`_, `#20`_ )\n* Renamed ``LocalStorage`` to ``Storage``.\n\n**Enhanced**\n\n* Added error handling for ``NGram`` training. ( `#75`_, `#86`_ )\n* Added error handling for ``IQSPR``. ( `#69`_ )\n* Added error handling for ``BaseDescriptor`` and ``BaseFeaturizer``. ( `#73`_ )\n* Added featurizer selection function. ( `#47`_ )\n\n**New Features**\n\n* Added sample data building function for ``preset``. ( `#81`_, `#84`_ )\n\n\n.. _#12: https://github.com/yoshida-lab/XenonPy/issues/12\n.. _#20: https://github.com/yoshida-lab/XenonPy/issues/20\n.. _#75: https://github.com/yoshida-lab/XenonPy/issues/75\n.. _#73: https://github.com/yoshida-lab/XenonPy/issues/73\n.. _#86: https://github.com/yoshida-lab/XenonPy/issues/86\n.. _#69: https://github.com/yoshida-lab/XenonPy/issues/69\n.. _#81: https://github.com/yoshida-lab/XenonPy/issues/81\n.. _#84: https://github.com/yoshida-lab/XenonPy/issues/84\n.. _#47: https://github.com/yoshida-lab/XenonPy/issues/47\n\n\n\n\nv0.2.0\n======\n\n**Descriptor Generator**:\n\n* Added ``xenonpy.descriptor.Fingerprint`` descriptor generator. ( `#21`_ )\n* Added ``xenonpy.descriptor.OrbitalFieldMatrix`` descriptor generator. ( `#22`_ )\n\n\n**API Changes**:\n\n* Allowed ``BaseDescriptor`` class to use anonymous/renamed input. ( `#10`_ )\n\n.. _#10: https://github.com/yoshida-lab/XenonPy/issues/10\n.. _#21: https://github.com/yoshida-lab/XenonPy/issues/21\n.. _#22: https://github.com/yoshida-lab/XenonPy/issues/22\n"
  },
  {
    "path": "docs/source/conf.py",
    "content": "#!/usr/bin/env python3\n# -*- coding: utf-8 -*-\n\n#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n#\n# XenonPy documentation build configuration file, created by\n# sphinx-quickstart on Mon Jan 15 16:41:55 2018.\n#\n# This file is execfile()d with the current directory set to its\n# containing dir.\n#\n# Note that not all possible configuration values are present in this\n# autogenerated file.\n#\n# All configuration values have a default; values that are commented out\n# serve to show the default.\n\n# If extensions (or modules to document with autodoc) are in another directory,\n# add these directories to sys.path here. If the directory is relative to the\n# documentation root, use os.path.abspath to make it absolute, like shown here.\n#\nimport os\nimport sys\n\nsys.path.insert(0, os.path.abspath('../../'))\n\nimport xenonpy as package\n\nlanguage = 'en'\n# -- General configuration ------------------------------------------------\n\n# If your documentation needs a minimal Sphinx version, state it here.\n#\n# needs_sphinx = '1.0'\n\n# Add any Sphinx extension module names here, as strings. They can be\n# extensions coming with Sphinx (named 'sphinx.ext.*') or your custom\n# ones.\nextensions = [\n    'nbsphinx', 'sphinx.ext.autodoc', 'sphinx.ext.doctest', 'sphinx.ext.napoleon', 'sphinx_autodoc_typehints',\n    'sphinx.ext.intersphinx', 'sphinx.ext.todo', 'sphinx.ext.coverage', 'sphinx.ext.mathjax', 'sphinx.ext.viewcode',\n    'sphinx.ext.githubpages', 'sphinx.ext.autosectionlabel'\n]\n\nexclude_patterns = ['_build', '**.ipynb_checkpoints']\nnbsphinx_execute = 'never'\n\n# config autosectionlabel\nautosectionlabel_prefix_document = True\n\n# config autodoc\nautoclass_content = 'both'\nautodoc_member_order = 'groupwise'\n\n# Add any paths that contain templates here, relative to this directory.\ntemplates_path = ['_templates']\n\n# The suffix(es) of source filenames.\n# You can specify multiple suffix as a list of string:\n#\n# source_suffix = ['.rst', '.md']\nsource_suffix = '.rst'\n\n# The master toctree document.\nmaster_doc = 'index'\n\n# General information about the project.\nproject = package.__name__\ncopyright = '2022, yoshida-lab'\nauthor = 'TsumiNa'\n\n# The version info for the project you're documenting, acts as replacement for\n# |version| and |release|, also used in various other places throughout the\n# built documents.\n#\n# The short X.Y version.\nversion = package.__version__\n# The full version, including alpha/beta/rc tags.\nrelease = package.__release__\n\n# The language for content autogenerated by Sphinx. Refer to documentation\n# for a list of supported languages.\n#\n# This is also used if you do content translation via gettext catalogs.\n# Usually you set \"language\" from the command line for these cases.\nlanguage = None\n\n# List of patterns, relative to source directory, that match files and\n# directories to ignore when looking for source files.\n# This patterns also effect to html_static_path and html_extra_path\nexclude_patterns = []\n\n# The name of the Pygments (syntax highlighting) style to use.\npygments_style = 'sphinx'\n\n# If true, todo and todoList produce output, else they produce nothing.\ntodo_include_todos = True\n\n# -- Options for HTML output ----------------------------------------------\n\n# The theme to use for HTML and HTML Help pages.  See the documentation for\n# a list of builtin themes.\n#\n# html_theme = 'alabaster'\nhtml_theme = \"sphinx_rtd_theme\"\n\n# Theme options are theme-specific and customize the look and feel of a theme\n# further.  For a list of options available for each theme, see the\n# documentation.\n#\nhtml_theme_options = {\n    'logo_only': True,\n}\n\n# favicon\nhtml_favicon = 'favicon.ico'\n\n# read the docs banner\nhtml_logo = '_static/logo_readthedocs.png'\n\n# Add any paths that contain custom static files (such as style sheets) here,\n# relative to this directory. They are copied after the builtin static files,\n# so a file named \"default.css\" will overwrite the builtin \"default.css\".\nhtml_static_path = ['_static']\n\n# Custom sidebar templates, must be a dictionary that maps document names\n# to template names.\n#\n# This is required for the alabaster theme\n# refs: http://alabaster.readthedocs.io/en/latest/installation.html#sidebars\nhtml_sidebars = {\n    '**': [\n        'relations.html',  # needs 'show_related': True theme option to display\n        'searchbox.html',\n    ]\n}\n\n# -- Options for HTMLHelp output ------------------------------------------\n\n# Output file base name for HTML help builder.\nhtmlhelp_basename = 'XenonPydoc'\n\n# -- Options for LaTeX output ---------------------------------------------\n\nlatex_elements = {\n    # The paper size ('letterpaper' or 'a4paper').\n    #\n    # 'papersize': 'letterpaper',\n\n    # The font size ('10pt', '11pt' or '12pt').\n    #\n    # 'pointsize': '10pt',\n\n    # Additional stuff for the LaTeX preamble.\n    #\n    # 'preamble': '',\n\n    # Latex figure (float) alignment\n    #\n    # 'figure_align': 'htbp',\n}\n\n# Grouping the document tree into LaTeX files. List of tuples\n# (source start file, target name, title,\n#  author, documentclass [howto, manual, or own class]).\nlatex_documents = [\n    (master_doc, 'XenonPy.tex', 'XenonPy Documentation', 'TsumiNa', 'manual'),\n]\n\n# -- Options for manual page output ---------------------------------------\n\n# One entry per manual page. List of tuples\n# (source start file, name, description, authors, manual section).\nman_pages = [(master_doc, 'XenonPy', 'XenonPy Documentation', [author], 1)]\n\n# -- Options for Texinfo output -------------------------------------------\n\n# Grouping the document tree into Texinfo files. List of tuples\n# (source start file, target name, title, author,\n#  dir menu entry, description, category)\ntexinfo_documents = [\n    (master_doc, 'XenonPy', 'XenonPy Documentation', author, 'XenonPy', 'One line description of project.',\n     'Miscellaneous'),\n]\n\n# Example configuration for intersphinx: refer to the Python standard library.\nintersphinx_mapping = {\n    'https://docs.python.org/3': None,\n    'pandas': ('https://pandas.pydata.org/pandas-docs/stable', None),\n    'numpy': ('https://numpy.org/doc/stable', None),\n    'scipy': ('https://docs.scipy.org/doc/scipy/reference', None),\n    'matplotlib': ('https://matplotlib.org', None),\n    'torch': ('https://pytorch.org/docs/stable/', None)\n}\n\nnbsphinx_execute = 'never'\n\n\ndef skip(app, what, name, obj, skip, options):\n    if name == \"__call__\":\n        return False\n    return skip\n\n\ndef setup(app):\n    app.add_css_file(\"css/container.css\")\n    app.connect(\"autodoc-skip-member\", skip)\n"
  },
  {
    "path": "docs/source/contact.rst",
    "content": "========\nContact\n========\n\n* For issues_\n* For Gitter_\n\n.. _issues: https://github.com/yoshida-lab/XenonPy/issues\n.. _Gitter: https://gitter.im/yoshida-lab/XenonPy\n"
  },
  {
    "path": "docs/source/contribution.rst",
    "content": "=======================\nContribution guidelines\n=======================\n\n1. Fork it ( https://github.com/yoshida-lab/XenonPy/fork )\n2. Extend your python environment to support XenonPy development (See: :ref:`installation:installing in development mode`)\n3. Create your feature branch (git checkout -b my-new-feature)\n4. Commit your changes (git commit -am 'Add some feature')\n5. Push to the branch (git push origin my-new-feature)\n6. Create a new Pull Request\n\nWhen contribute your codes, please do the following\n\n* Discuss with others\n* Use `Numpy style`_ for Docstring.\n* Check codes with Pylint_ based on `.pylintrc`_.\n* Format codes with YAPF_ based on `.style.yapf`_.\n* Write tests if possible\n\n\n.. _Numpy style: https://github.com/numpy/numpy/blob/master/doc/HOWTO_DOCUMENT.rst.txt\n.. _Pylint: https://pylint.readthedocs.io/\n.. _YAPF: https://github.com/google/yapf\n.. _.pylintrc: https://github.com/yoshida-lab/XenonPy/blob/master/.pylintrc\n.. _.style.yapf: https://github.com/yoshida-lab/XenonPy/blob/master/.style.yapf"
  },
  {
    "path": "docs/source/copyright.rst",
    "content": "=========\nCopyright\n=========\n\nCopyright © 2021 The XenonPy task force, all rights reserved.\nReleased under the `BSD-3 license`_.\n\n.. _BSD-3 license: https://opensource.org/licenses/BSD-3-Clause\n\n"
  },
  {
    "path": "docs/source/features.rst",
    "content": ".. role:: raw-html(raw)\n    :format: html\n\n========\nFeatures\n========\n\n\n-----------\nData access\n-----------\n.. _data-access:\n\n**Dataset** is an abstraction of the local file system.\nUsers can add their local dirs into this system then load data that under these dirs in a convenient way.\n\nXenonPy also uses this system to provide some built-in data.\nCurrently, two sets of element-level property data are available out-of-the-box (``elements`` and ``elements_completed`` (imputed version of ``elements``)).\nThese data were collected from `mendeleev`_, `pymatgen`_, `CRC Hand Book`_ and `Magpie`_.\n\n.. _CRC Hand Book: http://hbcponline.com/faces/contents/ContentsSearch.xhtml\n.. _Magpie: https://bitbucket.org/wolverton/magpie\n.. _mendeleev: https://mendeleev.readthedocs.io\n.. _pymatgen: http://pymatgen.org/\n\n``elements`` contains 74 element-level properties of 118 elements. Their missing values\nwere statistically imputed by performing the multiple imputation method [1]_ and stored as ``elements_completed``.\nBecause of the statistical unreliability of the imputation for a subset of properties and heavier atoms that contains many missing values in elements,\nthe ``elements_completed`` data set provides only 58 properties of 94 elements (from **H** to **Pu**). The following table shows the currently available elemental information.\n\n.. table:: Element-level properties\n\n    =================================   ===================================================================================\n        feature                             description\n    ---------------------------------   -----------------------------------------------------------------------------------\n    ``period``                          Period in the periodic table\n    ``atomic_number``                   Number of protons found in the nucleus of an atom\n    ``mendeleev_number``                Atom number in mendeleev's periodic table\n    ``atomic_radius``                   Atomic radius\n    ``atomic_radius_rahm``              Atomic radius by Rahm et al\n    ``atomic_volume``                   Atomic volume\n    ``atomic_weight``                   The mass of an atom\n    ``icsd_volume``                     Atom volume in ICSD database\n    ``lattice_constant``                Physical dimension of unit cells in a crystal lattice\n    ``vdw_radius``                      Van der Waals radius\n    ``vdw_radius_alvarez``              Van der Waals radius according to Alvarez\n    ``vdw_radius_batsanov``             Van der Waals radius according to Batsanov\n    ``vdw_radius_bondi``                Van der Waals radius according to Bondi\n    ``vdw_radius_dreiding``             Van der Waals radius from the DREIDING FF\n    ``vdw_radius_mm3``                  Van der Waals radius from the MM3 FF\n    ``vdw_radius_rt``                   Van der Waals radius according to Rowland and Taylor\n    ``vdw_radius_truhlar``              Van der Waals radius according to Truhlar\n    ``vdw_radius_uff``                  Van der Waals radius from the UFF\n    ``covalent_radius_bragg``           Covalent radius by Bragg\n    ``covalent_radius_cordero``         Covalent radius by Cerdero et al\n    ``covalent_radius_pyykko``          Single bond covalent radius by Pyykko et al\n    ``covalent_radius_pyykko_double``   Double bond covalent radius by Pyykko et al\n    ``covalent_radius_pyykko_triple``   Triple bond covalent radius by Pyykko et al\n    ``covalent_radius_slater``          Covalent radius by Slater\n    ``c6``                              C_6 dispersion coefficient in a.u\n    ``c6_gb``                           C_6 dispersion coefficient in a.u\n    ``density``                         Density at 295K\n    ``proton_affinity``                 Proton affinity\n    ``dipole_polarizability``           Dipole polarizability\n    ``electron_affinity``               Electron affinity\n    ``electron_negativity``             Tendency of an atom to attract a shared pair of electrons\n    ``en_allen``                        Allen's scale of electronegativity\n    ``en_ghosh``                        Ghosh's scale of electronegativity\n    ``en_pauling``                      Pauling's scale of electronegativity\n    ``gs_bandgap``                      DFT bandgap energy of T=0K ground state\n    ``gs_energy``                       DFT energy per atom (raw VASP value) of T=0K ground state\n    ``gs_est_bcc_latcnt``               Estimated BCC lattice parameter based on the DFT volume\n    ``gs_est_fcc_latcnt``               Estimated FCC lattice parameter based on the DFT volume\n    ``gs_mag_moment``                   DFT magnetic momenet of T=0K ground state\n    ``gs_volume_per``                   DFT volume per atom of T=0K ground state\n    ``hhi_p``                           Herfindahl−Hirschman Index (HHI) production values\n    ``hhi_r``                           Herfindahl−Hirschman Index (HHI) reserves values\n    ``specific_heat``                   Specific heat at 20oC\n    ``gas_basicity``                    Gas basicity\n    ``first_ion_en``                    First ionisation energy\n    ``fusion_enthalpy``                 Fusion heat\n    ``heat_of_formation``               Heat of formation\n    ``heat_capacity_mass``              Mass specific heat capacity\n    ``heat_capacity_molar``             Molar specific heat capacity\n    ``evaporation_heat``                Evaporation heat\n    ``linear_expansion_coefficient``    Coefficient of linear expansion\n    ``boiling_point``                   Boiling temperature\n    ``brinell_hardness``                Brinell Hardness Number\n    ``bulk_modulus``                    Bulk modulus\n    ``melting_point``                   Melting point\n    ``metallic_radius``                 Single-bond metallic radius\n    ``metallic_radius_c12``             Metallic radius with 12 nearest neighbors\n    ``thermal_conductivity``            Thermal conductivity at 25 C\n    ``sound_velocity``                  Speed of sound\n    ``vickers_hardness``                Value of Vickers hardness test\n    ``Polarizability``                  Ability to form instantaneous dipoles\n    ``youngs_modulus``                  Young's modulus\n    ``poissons_ratio``                  Poisson's ratio\n    ``molar_volume``                    Molar volume\n    ``num_unfilled``                    Total unfilled electron\n    ``num_valance``                     Total valance electron\n    ``num_d_unfilled``                  Unfilled electron in d shell\n    ``num_d_valence``                   Valance electron in d shell\n    ``num_f_unfilled``                  Unfilled electron in f shell\n    ``num_f_valence``                   Valance electron in f shell\n    ``num_p_unfilled``                  Unfilled electron in p shell\n    ``num_p_valence``                   Valance electron in p shell\n    ``num_s_unfilled``                  Unfilled electron in s shell\n    ``num_s_valence``                   Valance electron in s shell\n    =================================   ===================================================================================\n\nFor more details on this system, see :doc:`tutorials/1-dataset`.\n\nAccess https://github.com/yoshida-lab/XenonPy/blob/master/samples/dataset_and_preset.ipynb to get a runnable script.\n\n\n----------------------\nDescriptor calculation\n----------------------\n\nCompositional descriptors\n-------------------------\n\nXenonPy can calculate 290 compositional features for a given chemical composition.\nThis calculation uses the information of the 58 element-level property data recorded in ``elements_completed``.\nFor example, let us consider a binary compound, :math:`A_{w_A}B_{w_B}`, whose element-level features are denoted by :math:`f_{A,i}` and :math:`f_{B,i} (i = 1, …, 58)`. Then, the 290 compositional descriptors are calculated: for :math:`i = 1, …, 58`,\n\n* Weighted average (abbr: ave): :math:`f_{ave, i} = w_{A}^* f_{A,i} + w_{B}^* f_{B,i}`,\n* Weighted variance (abbr: var): :math:`f_{var, i} = w_{A}^* (f_{A,i} - f_{ave, i})^2  + w_{B}^* (f_{B,i} - f_{ave, i})^2`,\n* Geometric mean (abbr: gmean): :math:`f_{gmean, i} = \\sqrt[w_A + w_B]{f_{A,i}^{w_A} * f_{V,i}^{w_B}}`,\n* Harmonic mean (abbr: hmean): :math:`f_{hmean, i} = \\frac{w_A +w_B}{\\frac{1}{f_{A,i}}*w_A + \\frac{1}{f_{B,i}}*w_B}`,\n* Max-pooling (abbr: max): :math:`f_{max, i} = max{f_{A,i}, f_{B,i}}`,\n* Min-pooling (abbr: min): :math:`f_{min, i} = min{f_{A,i}, f_{B,i}}`,\n* Weighted sum (abbr: sum): :math:`f_{sum, i} = w_{A} f_{A,i} + w_{B} f_{B,i}`,\n\nwhere :math:`w_{A}^*` and :math:`w_{B}^*` denote the normalized composition summing up to one.\n\nBy using compositional descriptors, we have succeeded in predicting the composition of quasicrystals [2]_.\n\nStructural descriptors\n----------------------\nCurrently, XenonPy implements RDF (radial distribution function) and OFM (orbital field matrix [3]_) descriptors of crystalline structures.\nWe also provide a compatible API to use the structural descriptors of `matminer <https://hackingmaterials.github.io/matminer/>`_.\nYou may check the summary table of featurizers in matminer `here <https://hackingmaterials.github.io/matminer/featurizer_summary.html>`_.\n\n\n\nRDKit descriptors\n-----------------\nXenonPy also supports molecular descriptors available in the `RDKit`_ python package, including 10 sets of fingerprints, each contains corresponding options.\n\n.. _RDKit: https://www.rdkit.org/\n\n\nThe tutorial at :doc:`tutorials/2-descriptor` demonstrates how to calculate descriptors using ``XenonPy.descriptor`` classes.\n\nAccess https://github.com/yoshida-lab/XenonPy/blob/master/samples/calculate_descriptors.ipynb to get a runnable script.\n\n\n--------------------------------------------------\nVisualization of descriptor-property relationships\n--------------------------------------------------\n\nDescriptors on a set of given materials could be displayed on a heatmap plot in order to facilitate the understanding of\noverall patterns in relation to their properties. The following figure shows an example:\n\n.. figure:: _static/heatmap.jpg\n\n     Heatmap of 290 compositional descriptors of 69,640 compounds in Materials Project (upper: volume Å\\ :sup:`3`\\ , lower:  density g/cm\\ :sup:`3`\\  ).\n\nIn the heatmap of the descriptor matrix, the 69,640 materials are arranged from the top to bottom by the increasing order\nof formation energies. Plotting the descriptor-property relationships in this way, we could visually recognize which\ndescriptors are relevant or irrelevant to the prediction of formation energies. Relevant descriptors, which are linearly\nor nonlinearly dependent to formation energies, might exhibit certain patterns from top to bottom in the heatmap. For example,\na monotonically decrease or increase pattern would appear in a linearly dependent descriptor. On the other hand,\nirrelevant descriptors might exhibit no specific patterns.\n\nSee the tutorial for visualization of descriptor-property relationships at :doc:`tutorials/3-visualization`.\n\nAccess https://github.com/yoshida-lab/XenonPy/blob/master/samples/visualization.ipynb to get a runnable script.\n\n\n-----------\nXenonPy.MDL\n-----------\n\n**WARNING: This subsection's information is out-dated and the details are no long true. Currently XenonPy.MDL is undergoing indefinite maintenance. Please refer to the github README page for the latest update.**\n\nXenonPy.MDL is a library of pre-trained models that were obtained by feeding diverse materials data on structure-property relationships into neural networks and some other supervised learning algorithms.\nThe current release (version 0.1.0.beta) contains more than 140,000 models (include private models) on physical, chemical, electronic, thermodynamic, or mechanical properties of small organic molecules (15 properties), polymers/polymer composites (18), and inorganic compounds (12).\nPre-trained neural networks are distributed as either the R (MXNet) or Python (PyTorch) model objects.\nDetailed information about XenonPy.MDL, such as a list of models, properties, source data used for training, and so on, are prepared in this paper [3]_.\n\nThe following lists contain the information of current available pre-trained models and properties.\n\n.. table:: Information on model sets\n\n    +----------+-----------------------------------+-------------------------------------------------------------------+\n    |  id      |  name                             |  description                                                      |\n    +==========+===================================+===================================================================+\n    |          | | Stable inorganic compounds      | | Models in this set are trained on ~20,000 stable inorganic      |\n    |  ``1``   | | in materials project (MP)       | | compounds selected from the materials project.                  |\n    |          |                                   |                                                                   |\n    +----------+-----------------------------------+-------------------------------------------------------------------+\n    |          | | All inorganic compounds         | | Models in this set are trained on ~70,000 inorganic compounds   |\n    |  ``2``   | | in materials project (MP)       | | selected from the materials project.                            |\n    |          |                                   |                                                                   |\n    +----------+-----------------------------------+-------------------------------------------------------------------+\n    |          | | QM9 Dataset from                | | Quantum-Machine project can be access                           |\n    |  ``3``   | | Quantum-Machine website         | | from http://quantum-machine.org/.                               |\n    |          |                                   |                                                                   |\n    +----------+-----------------------------------+-------------------------------------------------------------------+\n    |          |   PHYSPROP Dataset                | | PHYSPROP database contains chemical structures,                 |\n    |  ``4``   |                                   | | names and physical properties for over 41,000 chemicals.        |\n    |          |                                   |                                                                   |\n    +----------+-----------------------------------+-------------------------------------------------------------------+\n    |          | | Jean-Claude Bradley Open        | | Jean-Claude Bradley's dataset of Open Melting Points.           |\n    |  ``5``   | | Melting Point Dataset           |                                                                   |\n    |          |                                   |                                                                   |\n    +----------+-----------------------------------+-------------------------------------------------------------------+\n    |          | | Polymer Genome Dataset (PG)     | | Polymer Genome is an informatics platform for polymer property  |\n    |  ``6``   |                                   | | prediction and design using machine learning.                   |\n    |          |                                   | | It can be accessed via https://www.polymergenome.org/.          |\n    +----------+-----------------------------------+-------------------------------------------------------------------+\n\n\n.. table:: Information of properties\n\n    ================================ =================== ================================================\n                                name             system                                    querying name\n    -------------------------------- ------------------- ------------------------------------------------\n                 Melting Temperature     Organic Polymer              organic.polymer.melting_temperature\n                   Ionization Energy     Organic Polymer                organic.polymer.ionization_energy\n           Ionic Dielectric Constant     Organic Polymer        organic.polymer.ionic_dielectric_constant\n     Hildebrand Solubility Parameter     Organic Polymer  organic.polymer.hildebrand_solubility_parameter\n        Glass Transition Temperature     Organic Polymer     organic.polymer.glass_transition_temperature\n                        Molar Volume     Organic Polymer                     organic.polymer.molar_volume\n                   Electron Affinity     Organic Polymer                organic.polymer.electron_affinity\n                 Dielectric Constant     Organic Polymer              organic.polymer.dielectric_constant\n                             Density     Organic Polymer                          organic.polymer.density\n                     Cohesive Energy     Organic Polymer                  organic.polymer.cohesive_energy\n                             Bandgap     Organic Polymer                          organic.polymer.bandgap\n                  Atomization Energy     Organic Polymer               organic.polymer.atomization_energy\n                    Refractive Index     Organic Polymer                 organic.polymer.refractive_index\n                 Molar Heat Capacity     Organic Polymer              organic.polymer.molar_heat_capacity\n      Electronic Dielectric Constant     Organic Polymer   organic.polymer.electronic_dielectric_constant\n                          U0 Hartree  Organic Nonpolymer                    organic.nonpolymer.u0_hartree\n                            R2 Bohr2  Organic Nonpolymer                      organic.nonpolymer.r2_bohr2\n                            Mu Debye  Organic Nonpolymer                      organic.nonpolymer.mu_debye\n                        Lumo Hartree  Organic Nonpolymer                  organic.nonpolymer.lumo_hartree\n                        Homo Hartree  Organic Nonpolymer                  organic.nonpolymer.homo_hartree\n                         Gap Hartree  Organic Nonpolymer                   organic.nonpolymer.gap_hartree\n                         Alpha Bohr3  Organic Nonpolymer                   organic.nonpolymer.alpha_bohr3\n                           U Hartree  Organic Nonpolymer                     organic.nonpolymer.u_hartree\n                        Zpve Hartree  Organic Nonpolymer                  organic.nonpolymer.zpve_hartree\n                                  Bp  Organic Nonpolymer                            organic.nonpolymer.bp\n                      Cv Calmol-1K-1  Organic Nonpolymer                organic.nonpolymer.cv_calmol-1k-1\n                                  Tm  Organic Nonpolymer                            organic.nonpolymer.tm\n                           G Hartree  Organic Nonpolymer                     organic.nonpolymer.g_hartree\n                           H Hartree  Organic Nonpolymer                     organic.nonpolymer.h_hartree\n                             Density   Inorganic Crystal                        inorganic.crystal.density\n                              Volume   Inorganic Crystal                         inorganic.crystal.volume\n                    Refractive Index   Inorganic Crystal               inorganic.crystal.refractive_index\n                            Band Gap   Inorganic Crystal                       inorganic.crystal.band_gap\n           Dielectric Const Electron   Inorganic Crystal          inorganic.crystal.dielectric_const_elec\n                        Fermi Energy   Inorganic Crystal                         inorganic.crystal.efermi\n                 Total Magnetization   Inorganic Crystal            inorganic.crystal.total_magnetization\n              Dielectric Const Total   Inorganic Crystal         inorganic.crystal.dielectric_const_total\n               Final Energy Per Atom   Inorganic Crystal          inorganic.crystal.final_energy_per_atom\n           Formation Energy Per Atom   Inorganic Crystal      inorganic.crystal.formation_energy_per_atom\n    ================================ =================== ================================================\n\nXenonPy.MDL provides a rich set of APIs to give users the abilities to interact with the pre-trained model database.\nThrough the APIs, users can search for a specific subset of models by keywords and download them via HTTP.\nThe tutorial at :doc:`tutorials/5-pre-trained_model_library` illustrates how to interact with the database in XenonPy (via the API querying).\n\nAccess https://github.com/yoshida-lab/XenonPy/blob/master/samples/pre-trained_model_library.ipynb to get a runnable script.\n\n\n-----------------\nTransfer learning\n-----------------\n\nTransfer learning has become one of the basic techniques in machine learning that covers a broad range of algorithms for\nwhich a model trained for one task is re-purposed to another related task [4]_ [5]_.\nIn general, the need of transfer learning occurs when there is a limited supply of training data for a specific task, \nyet data supply for related task is sufficient. This situation occurs in many materials science applications as described in [6]_ [7]_.\n\nXenonPy offers a simple-to-use toolchain to seamlessly perform transfer learning with the given pre-trained models.\nGiven a target property, by using the transfer learning module of XenonPy, a source model can be treated as a generator of machine learning acquired descriptors, so-called the neural descriptors, as demonstrated in [3]_.\n\nSee tutorial at :doc:`tutorials/6-transfer_learning` to learn how to perform frozen feature transfer learning in XenonPy.\n\nAccess https://github.com/yoshida-lab/XenonPy/blob/master/samples/transfer_learning.ipynb to get a runnable script.\n\n--------------\nInverse design\n--------------\n\nInverse molecular design is an important research subject in materials science that aims to create new chemical structures with desired properties computationally.\nXenonPy offers a Bayesian molecular design algorithm based on [8]_ that includes a SMILES generator based on N-gram model, likelihood calculator, and a sequential Monte Carlo algorithm for sampling the posterior distribution of molecules with properties specified by the likelihood function. Details of this algorithm, which is called iQSPR, can be found in [9]_. An example of using iQSPR to search for high thermal conductivity polymer can be found in [10]_. \n\nSee tutorial at :doc:`tutorials/7-inverse-design` to learn how to perform inverse molecular design using iQSPR in XenonPy.\n\nAccess https://github.com/yoshida-lab/XenonPy/blob/master/samples/iQSPR.ipynb to get a runnable script.\n\n**Reference**\n\n.. [1] D. B. Rubin, Ed., Multiple Imputation for Nonresponse in Surveys. Hoboken, NJ, USA: John Wiley & Sons, Inc., 1987. doi: 10.1002/9780470316696.\n.. [2] C. Liu et al., “Machine Learning to Predict Quasicrystals from Chemical Compositions,” Adv. Mater., vol. 33, no. 36, p. 2102507, Sep. 2021, doi: 10.1002/adma.202102507.\n.. [3] T. Lam Pham et al., “Machine learning reveals orbital interaction in materials,” Science and Technology of Advanced Materials, vol. 18, no. 1, pp. 756–765, Dec. 2017, doi: 10/gm4znv.\n.. [4] K. Weiss, T. M. Khoshgoftaar, and D. Wang, “A survey of transfer learning,” J Big Data, vol. 3, no. 1, p. 9, Dec. 2016, doi: 10/gfkr2w.\n.. [5] C. Tan, F. Sun, T. Kong, W. Zhang, C. Yang, and C. Liu, “A survey on deep transfer learning,” in Artificial neural networks and machine learning – ICANN 2018, Cham, 2018, pp. 270–279.\n.. [6] H. Yamada et al., “Predicting Materials Properties with Little Data Using Shotgun Transfer Learning,” ACS Cent. Sci., vol. 5, no. 10, pp. 1717–1730, Oct. 2019, doi: 10.1021/acscentsci.9b00804.\n.. [7] S. Ju et al., “Exploring diamondlike lattice thermal conductivity crystals via feature-based transfer learning,” Phys. Rev. Mater., vol. 5, no. 5, p. 053801, May 2021, doi: 10.1103/physrevmaterials.5.053801.\n.. [8] H. Ikebata, K. Hongo, T. Isomura, R. Maezono, and R. Yoshida, “Bayesian molecular design with a chemical language model,” J Comput Aided Mol Des, vol. 31, no. 4, pp. 379–391, Apr. 2017, doi: 10/ggpx8b.\n.. [9] S. Wu, G. Lambard, C. Liu, H. Yamada, and R. Yoshida, “iQSPR in XenonPy: A Bayesian Molecular Design Algorithm,” Mol. Inform., vol. 39, no. 1–2, p. 1900107, Jan. 2020, doi: 10.1002/minf.201900107.\n.. [10] S. Wu et al., “Machine-learning-assisted discovery of polymers with high thermal conductivity using a molecular design algorithm,” npj Computational Materials, vol. 5, no. 1, pp. 66–66, Dec. 2019, doi: 10.1038/s41524-019-0203-2.\n\n"
  },
  {
    "path": "docs/source/index.rst",
    "content": ".. Copyright 2019 TsumiNa. All rights reserved.\n\n\n.. role:: raw-html(raw)\n    :format: html\n\n========================\nWhat is XenonPy project\n========================\n\n|MacOS| |Windows| |Ubuntu| |readthedocs| |codecov| |version| |python| |total-dl| |per-dl|\n\n.. raw:: html\n\n    <div class=\"admonition note\">\n    <p class=\"admonition-title\">Note</p>\n    <p class=\"admonition-body\">\n        <div id=\"container\">\n            <div class=\"left\">\n                <a href=\"https://www.kyoritsu-pub.co.jp/book/b10013510.html\">\n                    <img src=\"https://hondana-image.s3.amazonaws.com/book/image/10013510/normal_efd4a971-dec1-47ca-8d29-d448f099d7f6.jpg\" alt=\"マテリアルズインフォマティクス\">\n                </a>\n            </div>\n            <div class=\"right\">\n                <p>To all those who have purchased the book <a class=\"reference external\" href=\"https://www.kyoritsu-pub.co.jp/book/b10013510.html\">Materials Informatics</a> published by <a class=\"reference external\" href=\"https://www.kyoritsu-pub.co.jp/\">KYORITSU SHUPPAN</a>:</p>\n                <p>The link to the exercises has changed to <a class=\"reference external\" href=\"https://github.com/yoshida-lab/XenonPy/tree/master/mi_book\">https://github.com/yoshida-lab/XenonPy/tree/master/mi_book</a>.\n                Please follow the new link to access all these exercises.</p>\n                <p>We apologize for the inconvenience.</p>\n            </div>\n        </div>\n    </div>\n\n--------\nOverview\n--------\n**XenonPy** is a Python library that implements a comprehensive set of machine learning tools\nfor materials informatics. Its functionalities partially depend on Python (PyTorch) and R (MXNet).\nThis package is still under development. The current released version provides some limited features:\n\n* Interface to the public materials database\n* Library of materials descriptors (compositional/structural descriptors)\n* pre-trained model library **XenonPy.MDL** (v0.1.0.beta, 2019/8/9: more than 140,000 models (include private models) in 35 properties of small molecules, polymers, and inorganic compounds) [Currently under major maintenance, expected to be recovered in v0.7]\n* Machine learning tools.\n* Transfer learning using the pre-trained models in XenonPy.MDL\n\n\n.. image:: _static/xenonpy.png\n\n\n--------\nCitation\n--------\nXenonPy is an on-going research project that covers multiple important topics in materials informatics.\nWe recommend users to cite the papers that are relevant to their specific use of XenonPy.\nPlease refer to :doc:`features` for details of each feature in XenonPy with its corresponding citation.\nUser can also check the publication list below to pick the relevant citations.\n\n\n--------\nFeatures\n--------\nXenonPy has a rich set of tools for various materials informatics applications.\nThe descriptor generator class can calculate several types of numeric descriptors from ``compositional``, ``structure``.\nBy using XenonPy's built-in visualization functions, the relationships between descriptors and target properties can be easily shown in a heatmap.\nXenonPy also supports an interface to use the ``rdkit`` descriptors and provides the ``iQSPR`` algorithm for molecular design.\n\nTransfer learning is an important tool for the efficient application of machine learning methods to materials informatics.\nTo facilitate the widespread use of transfer learning,\nwe have developed a comprehensive library of pre-trained models, called **XenonPy.MDL**.\nThis library provides a simple API that allows users to fetch the models via an HTTP request.\nFor the ease of using the pre-trained models, some useful functions are also provided.\n\nSee :doc:`features` for details.\n\n\n------\nSample\n------\nSample codes of different features in XenonPy are available here: https://github.com/yoshida-lab/XenonPy/tree/master/samples\n\n\n.. _user-doc:\n.. toctree::\n    :maxdepth: 2\n    :caption: User Documentation\n\n    books\n    copyright\n    installation\n    features\n    tutorial\n    api\n    contribution\n    changes\n    contact\n\n\n------------\nPublications\n------------\n\n.. [1] H. Ikebata, K. Hongo, T. Isomura, R. Maezono, and R. Yoshida, “Bayesian molecular design with a chemical language model,” J Comput Aided Mol Des, vol. 31, no. 4, pp. 379–391, Apr. 2017, doi: 10/ggpx8b.\n.. [2] S. Wu et al., “Machine-learning-assisted discovery of polymers with high thermal conductivity using a molecular design algorithm,” npj Computational Materials, vol. 5, no. 1, pp. 66–66, Dec. 2019, doi: 10.1038/s41524-019-0203-2.\n.. [3] S. Wu, G. Lambard, C. Liu, H. Yamada, and R. Yoshida, “iQSPR in XenonPy: A Bayesian Molecular Design Algorithm,” Mol. Inform., vol. 39, no. 1–2, p. 1900107, Jan. 2020, doi: 10.1002/minf.201900107.\n.. [4] H. Yamada et al., “Predicting Materials Properties with Little Data Using Shotgun Transfer Learning,” ACS Cent. Sci., vol. 5, no. 10, pp. 1717–1730, Oct. 2019, doi: 10.1021/acscentsci.9b00804.\n.. [5] S. Ju et al., “Exploring diamondlike lattice thermal conductivity crystals via feature-based transfer learning,” Phys. Rev. Mater., vol. 5, no. 5, p. 053801, May 2021, doi: 10.1103/physrevmaterials.5.053801.\n.. [6] C. Liu et al., “Machine Learning to Predict Quasicrystals from Chemical Compositions,” Adv. Mater., vol. 33, no. 36, p. 2102507, Sep. 2021, doi: 10.1002/adma.202102507.\n\n\n------------\nContributing\n------------\n\nXenonPy is an `open source project <https://github.com/yoshida-lab/XenonPy>`_ inspired by `matminer <https://hackingmaterials.github.io/matminer>`_.\n:raw-html:`<br/>`\nThis project is under continuous development. We would appreciate any feedback from the users.\n:raw-html:`<br/>`\nCode contributions are also very welcomed. See :doc:`contribution` for more details.\n\n\n.. _pandas: https://pandas.pydata.org\n.. _PyTorch: http://pytorch.org/\n.. _Xenon: https://en.wikipedia.org/wiki/Xenon\n\n.. |MacOS| image:: https://github.com/yoshida-lab/XenonPy/workflows/MacOS/badge.svg\n    :alt: MacOS Building Status\n    :target: https://github.com/yoshida-lab/XenonPy/actions?query=workflow%3AMacOS\n\n.. |Windows| image:: https://github.com/yoshida-lab/XenonPy/workflows/Windows/badge.svg\n    :alt: Windows Building Status\n    :target: https://github.com/yoshida-lab/XenonPy/actions?query=workflow%3AWindows\n\n.. |Ubuntu| image:: https://github.com/yoshida-lab/XenonPy/workflows/Ubuntu/badge.svg\n    :alt: Ubuntu Building Status\n    :target: https://github.com/yoshida-lab/XenonPy/actions?query=workflow%3AUbuntu\n\n.. |readthedocs| image:: https://readthedocs.org/projects/xenonpy/badge/?version=latest\n    :alt: Documentation Status\n    :target: https://xenonpy.readthedocs.io/en/latest/?badge=latest\n\n.. |codecov| image:: https://codecov.io/gh/yoshida-lab/XenonPy/branch/master/graph/badge.svg\n  :target: https://codecov.io/gh/yoshida-lab/XenonPy\n\n.. |version| image:: https://img.shields.io/github/tag/yoshida-lab/XenonPy.svg?maxAge=360\n    :alt: Version\n    :target: https://github.com/yoshida-lab/XenonPy/releases/latest\n\n.. |python| image:: https://img.shields.io/pypi/pyversions/xenonpy.svg\n    :alt: Python Versions\n    :target: https://pypi.org/project/xenonpy/\n\n.. |total-dl| image:: https://pepy.tech/badge/xenonpy\n    :alt: Downloads\n    :target: https://pepy.tech/badge/xenonpy\n\n.. |per-dl| image:: https://img.shields.io/pypi/dm/xenonpy.svg?label=PiPy%20downloads\n    :alt: PyPI - Downloads\n\n"
  },
  {
    "path": "docs/source/installation.rst",
    "content": ".. role:: raw-html(raw)\n    :format: html\n\n.. note::\n\n   To all those who have purchased the book `Materials Informatics`_  published by `KYORITSU SHUPPAN`_:\n\n   The link to the exercises has changed to https://github.com/yoshida-lab/XenonPy/tree/master/mi_book.\n   Please follow the new link to access all these exercises.\n\n   We apologize for the inconvenience.\n\n============\nInstallation\n============\n\nXenonPy can be installed using pip_ in 3.6 and 3.7 on Mac, Linux, and Windows.\nAlternatively, we recommend using the `Docker Image`_ if you have no installation preference.\nWe have no plan to support Python 2.x. One of the main reasons is that the ``pymatgen`` library will not support Python 2 from 2019.\nSee `this link <http://pymatgen.org/#py3k-only-with-effect-from-2019-1-1>`_ for details.\n\n\n\n.. _install_xenonpy:\n\n-------------------\nUsing conda and pip\n-------------------\n\npip_ is a package management system for installing and updating Python packages, which comes with any Python distribution.\nConda_ is an open source package management system and environment management system that runs on Windows, macOS, and Linux.\nConda easily creates, saves, loads and switches between environments on your local computer.\n\nXenonPy has 3 peer dependencies, which are PyTorch, pymatgen and rdkit_. Before you install XenonPy, you have to install them.\nThe easiest way to install all 3 packages is to use Conda_. The following official tutorials will guide you through a successful installation.\n\nPyTorch: https://pytorch.org/get-started/locally/\n:raw-html:`<br />`\npymatgen: http://pymatgen.org/index.html#getting-pymatgen\n:raw-html:`<br />`\nrdkit: https://www.rdkit.org/docs/Install.html\n\nFor convenience, several environments preset are available at `conda_env`_.\nYou can use these files to create a runnable environment on your local machine.\n\n.. code-block:: bash\n\n    $ conda create -n <env_name_you_liked> python={3.6 or 3.7}  # use `conda create` command to create a fresh environment with specific name and python version\n    $ conda env update -n <env_name_you_created> -f <path_to_env_file>  # use `conda env update` command to sync packages with the preset environment\n\n.. note::\n\n    For Unix-like (Linux, Mac, FreeBSD, etc.) system, the above command will be enough. For windows, additional tools are needed.\n    We highly recommend you to install the `Visual C++ Build Tools <https://visualstudio.microsoft.com/thank-you-downloading-visual-studio/?sku=BuildTools&rel=16>`_ before creating your environment.\n    Also, confirm that you have checked the **Windows 10 SDK** (assuming the computer is Windows 10) on when installing the build tools.\n\nThe following example shows how to create an environment named ``xenonpy`` in ``python3.7`` and ``cuda10.1`` supports step-by-step.\n\n1. **Chose an environment preset and download it**.\n\n Because we want to have cuda10.1 supports, The **cuda101.yml** preset will surely satisfy this work.\n If `curl <https://curl.haxx.se/>`_ has been installed, the following command will download the environment file to your local machine.\n\n .. code-block:: bash\n\n  $ curl -O https://raw.githubusercontent.com/yoshida-lab/XenonPy/master/conda_env/cuda101.yml\n\n2. **Create the environment and install packages using environment file**.\n\n The following commands will rebuild a python3.7 environment, and install the packages which are listed in **cuda101.yml**.\n\n .. code-block:: bash\n\n    $ conda create -n xenonpy python=3.7\n    $ conda env update -n xenonpy -f cuda101.yml\n\n\n3. **Enter the environment by name**.\n\n In this example, it's ``xenonpy``.\n\n .. code-block:: bash\n\n    $ source activate xenonpy\n\n    # or\n\n    $ activate xenonpy\n\n    # or\n\n    $ conda activate xenonpy\n\n .. note::\n     Which command should be used is based on your system and your conda configuration.\n\n4. **Update XenonPy**\n\n When you reached here, XenonPy has been installed successfully.\n If you want to update your old installation of XenonPy, ssing ``pip install -U xenonpy``.\n\n .. code-block:: bash\n\n    $ pip install -U xenonpy\n\n\n------------\nUsing docker\n------------\n\n.. image:: _static/docker.png\n\n\n**Docker** is a tool designed to easily create, deploy, and run applications across multiple platforms using containers.\nContainers allow a developer to pack up an application with all of the parts it needs, such as libraries and other dependencies, into a single package.\nWe provide the `official docker images`_ via the `Docker hub <https://hub.docker.com>`_.\n\nUsing docker needs you to have a docker installation on your local machine. If you have not installed it yet, follow the `official installation tutorial <https://docs.docker.com/install/>`_ to install docker CE on your machine.\nOnce you have done this, the following command will boot up a jupyterlab_ for you with XenonPy inside. See `here <https://github.com/yoshida-lab/XenonPy#xenonpy-images>`_ to know what other packages are available.\n\n.. code-block:: bash\n\n    $ docker run --rm -it -v $HOME/.xenonpy:/home/user/.xenonpy -v <path/to/your/work_space>:/workspace -p 8888:8888 yoshidalab/xenonpy\n\nIf you have a GPU server/PC running Linux and want to bring the GPU acceleration to docker. Just adding ``--runtime=nvidia`` to ``docker run`` command.\n\n.. code-block:: bash\n\n    $ docker run --runtime=nvidia --rm -it -v $HOME/.xenonpy:/home/user/.xenonpy -v <path/to/your/work_space>:/workspace -p 8888:8888 yoshidalab/xenonpy\n\nFor more information about **using GPU acceleration in docker**, see `nvidia docker <https://github.com/NVIDIA/nvidia-docker>`_.\n.. note::\n    \n    If you get **docker: Error response from daemon: Unknown runtime specified nvidia.** when runing docker with ``--runtime=nvidia``.\n    Please update your ``nvidia-docker`` to ``nvidia-docker2`` and repleace ``--runtime=nvidia`` with ``--gpus all``.\n    see `this issue <https://github.com/NVIDIA/nvidia-docker/issues/838>`_ for details.\n\n\nPermission failed\n-----------------\n\nYou may have a permission problem when you try to open/save jupyter files. This is because docker is a container system running like a virtual machine.\nFiles will have different permission when be mounted onto a docker container.\nThe simplest way to resolve this problem is changing the permission of failed files.\nYou can open a terminal in jupyter notebook and type:\n\n.. code-block:: bash\n\n    $ sudo chmod 666 permission_failed_file\n\nThis will change file permission to ``r+w`` for all users.\n\n\n------------------------------\nInstalling in development mode\n------------------------------\n\nThe user who plans to contribute to XenonPy has to extend the python environment to support pytest and other development tools.\nThe simplest way to extend your environment is using `extra_env.yml`_.\n\n.. code-block:: bash\n\n    $ git clone https://github.com/yoshida-lab/XenonPy.git\n\nunder the cloned folder, run the following to install XenonPy in development mode:\n\n.. code-block:: bash\n\n    $ cd XenonPy\n    $ conda env update -n <your_env_name> -f devtools/extra_env.yml\n    $ pip install -e .\n\n\n\n----------------------\nTroubleshooting/issues\n----------------------\n\nContact us at issues_ and Gitter_ when you have trouble.\n\nPlease provide detailed information (system specification, Python version, and input/output log, and so on).\n\n-----------------------------------------------------------------------------------------------------------\n\n.. _Materials Informatics: https://www.kyoritsu-pub.co.jp/book/b10013510.html\n.. _KYORITSU SHUPPAN: https://www.kyoritsu-pub.co.jp/\n.. _Conda: https://conda.io/en/latest/\n.. _official docker images: https://cloud.docker.com/u/yoshidalab/repository/docker/yoshidalab/xenonpy\n.. _yoshida-lab channel: https://anaconda.org/yoshida\n.. _pip: https://pip.pypa.io\n.. _docker image: https://docs.docker.com\n.. _extra_env.yml: https://github.com/yoshida-lab/XenonPy/blob/master/devtools/extra_env.yml\n.. _issues: https://github.com/yoshida-lab/XenonPy/issues\n.. _Gitter: https://gitter.im/yoshida-lab/XenonPy\n.. _PyTorch: http://pytorch.org/\n.. _rdkit: https://www.rdkit.org/\n.. _jupyterlab: https://jupyterlab.readthedocs.io/en/stable/\n.. _conda_env: https://github.com/yoshida-lab/XenonPy/tree/master/conda_env\n"
  },
  {
    "path": "docs/source/modules.rst",
    "content": "xenonpy\n=======\n\n.. toctree::\n   :maxdepth: 4\n\n   xenonpy\n"
  },
  {
    "path": "docs/source/setup.rst",
    "content": "setup module\n============\n\n.. automodule:: setup\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/tutorial.rst",
    "content": "========\nTutorial\n========\n\nThese tutorials will demonstrate the most foundational usages of XenonPy and XenonPy.MDL and\nwe assume that you can use `Jupyter notebook <https://jupyter.org/>`_.\n\n.. toctree::\n   :maxdepth: 1\n   :glob:\n\n   tutorials/*\n\n\n-----------\nSample data\n-----------\n\nBefore starting these tutorials, you need to prepare some sample data for the benchmark/test.\n\nWe selected 1,000 inorganic compounds randomly from the `Materials Project <https://materialsproject.org>`_ database for this using.\nYou can check these **MP ids** at:\n\n    https://github.com/yoshida-lab/XenonPy/blob/master/samples/mp_ids.txt.\n\nTo build the sample data, you also have to create an API key at the materials project.\nPlease see `The Materials API <https://materialsproject.org/open>`_  and follow the official documents.\n\n\nYou can use the following codes to build your sample data. These data will be saved at ``~/.xenonpy/userdata``.\n\n    >>> from xenonpy.datatools import preset\n    >>> preset.build('mp_samples', api_key='your api key')\n\nIf you want to know what exactly the code did, please check:\n\n    https://github.com/yoshida-lab/XenonPy/blob/master/samples/sample_data_building.ipynb\n\n"
  },
  {
    "path": "docs/source/tutorials/1-dataset.rst",
    "content": "===========\nData access\n===========\n\n**Dataset** is an abstraction of the local file system.\nUsers can add their local paths into this system to easily access the data inside.\nThe basic concept is to treat a data file as a property of a ``Dataset`` object.\nThe following docs show how easy it is to interact with the data in this system.\n\n\n-------\nDataset\n-------\n\nAssuming that you have some data files ``data1.csv``, ``data1.pd.xz``, ``data1.pkl.z`` under dir `/set1`\nand ``data2.csv``, ``data2.pd.xz``, ``data2.pkl.z`` under dir `/set2`.\n\nThe following codes will create a ``Dataset`` object containing all available files under `/set1` and `/set2`.\n\n    >>> from xenonpy.datatools import Dataset\n    >>> dataset = Dataset('/set1', '/set2')\n    >>> dataset\n    <Dataset> includes:\n    \"data1\": /set1/data1.pd.xz\n    \"data2\": /set2/data2.pd.xz\n\nNow, you can retrieve data by their name like this:\n\n    >>> dataset.dataframe.data1\n\nWhat the code did is that, the ``dataset`` loaded a file with name ``data1.pd.xz`` from `/set1` or `/set2`.\nIn this case, the `/set1/data1.pd.xz` was loaded.\n\nIt is important to note that we called a property named ``dataframe`` before we load ``data1`` in order to let ``dataset`` know that it is loading a ``pandas.DataFrame`` object file using the ``pd.read_pickle`` function.\n\nCurrently, 4 loaders are available out-of-the-box. The information of built-in loaders is summarised as below.\n\n.. table:: built-in loaders\n\n    ==============  ==================  =============================\n    file extension        loader              description\n    --------------  ------------------  -----------------------------\n    ``pd(.*)``      pd.read_pickle      pandas.DataFrame object file\n    ``csv``         pd.read_csv         csv file\n    ``xlsx|xls``    pd.read_excel       excel file\n    ``pkl(.*)``     joblib.load         common pickled files\n    ==============  ==================  =============================\n\nThe default loader is ``dataframe``. This means that if you want to load a pandas.DataFrame object, you can omit the ``dataframe``.\nThe following code exactly does the same work as explained above:\n\n    >>> dataset.data1\n\nYou can also specify the default loader by setting the ``backend`` parameter:\n\n    >>> dataset = Dataset('set1', 'set2', backend='csv')\n    >>> dataset.data1  # this will load '/set1/data1.csv'\n\n\n\n------\npreset\n------\n\nXenonPy also uses this system to provide some built-in data.\nCurrently, two sets of element-level property data are available out-of-the-box (``elements`` and ``elements_completed`` (imputed version of ``elements``)).\nThese data were collected from `mendeleev`_, `pymatgen`_, `CRC Hand Book`_ and `Magpie`_.\nTo know the details of ``elements_completed``, see :ref:`features:Data access`\n\n.. _CRC Hand Book: http://hbcponline.com/faces/contents/ContentsSearch.xhtml\n.. _Magpie: https://bitbucket.org/wolverton/magpie\n.. _mendeleev: https://mendeleev.readthedocs.io\n.. _pymatgen: http://pymatgen.org/\n\nUse the following codes to load ``elements`` and ``elements_completed``.\n\n    >>> from xenonpy.datatools import preset\n    >>> preset.elements\n    >>> preset.elements_completed\n\nIf you will get a ``file not exist`` error, please run the following code to sync your local dataset.\n\n    >>> from xenonpy.datatools import preset\n    >>> preset.sync('elements')\n    >>> preset.sync('elements_completed')\n\nThese are still some advanced uses of ``Dataset`` and ``preset``. For more details, see :ref:`tutorials/1-dataset:Advance`.\n\nAlso see the jupyter files at:\n\n    https://github.com/yoshida-lab/XenonPy/tree/master/samples/dataset_and_preset.ipynb\n\n\n-------\nStorage\n-------\n\nFor implementation details, you can check out our sample codes:\n\n    https://github.com/yoshida-lab/XenonPy/tree/master/samples/storage.ipynb\n\n\n\n\n-------\nAdvance\n-------\n\nComing soon!\n"
  },
  {
    "path": "docs/source/tutorials/2-descriptor.rst",
    "content": "======================\nDescriptor calculation\n======================\n\n**XenonPy** comes with a general interface for descriptor calculation.\nBy using this interface, users can implement their descriptor calculator with only a few lines of codes and run it smoothly.\n\nWe also use this system to provide built-in calculators. Currently, 15 featurizers in 4 types are available out-of-the-box.\nThe following list shows a summary.\n\n.. csv-table:: Summary of built-in featurizers\n    :header: \"Featurizer\", \"Type\", \"Description\"\n\n    \"Counting\", \"Composition\", \"Encoding number of compounds elements in to vector: :math:`f_{min, i} = min{f_{A,i}, f_{B,i}}`\"\n    \"WeightedAverage\", \"Composition\", \"Weighted average (abbr: ave): :math:`f_{ave, i} = w_{A}^* f_{A,i} + w_{B}^* f_{B,i}`\"\n    \"WeightedVariance\", \"Composition\", \"Weighted variance (abbr: var): :math:`f_{var, i} = w_{A}^* (f_{A,i} - f_{ave, i})^2  + w_{B}^* (f_{B,i} - f_{ave, i})^2`\"\n    \"WeightedSum\", \"Composition\", \"Weighted sum (abbr: sum): :math:`f_{sum, i} = w_{A} f_{A,i} + w_{B} f_{B,i}`\"\n    \"GeometricMean\", \"Composition\", \"Geometric mean (abbr: gmean): :math:`f_{gmean, i} = \\sqrt[w_A + w_B]{f_{A,i}^{w_A} * f_{V,i}^{w_B}}`\"\n    \"HarmonicMean\", \"Composition\", \"Harmonic mean (abbr: hmean): :math:`f_{hmean, i} = \\frac{w_A +w_B}{\\frac{1}{f_{A,i}}*w_A + \\frac{1}{f_{B,i}}*w_B}`\"\n    \"MaxPooling\", \"Composition\", \"Max-pooling (abbr: max): :math:`f_{max, i} = max{f_{A,i}, f_{B,i}}`\"\n    \"MinPooling\", \"Composition\", \"Min-pooling (abbr: min): :math:`f_{min, i} = min{f_{A,i}, f_{B,i}}`\"\n    \"RDKitFP\", \"Fingerprint\", \"RDKit fingerprint\"\n    \"AtomPairFP\", \"Fingerprint\", \"Atom Pair fingerprints\"\n    \"MACCS\", \"Fingerprint\", \"The MACCS keys for a molecule\"\n    \"ECFP\", \"Fingerprint\", \"Morgan (Circular) fingerprints (ECFP)\"\n    \"FCFP\", \"Fingerprint\", \"Morgan (Circular) fingerprints + feature-based (FCFP)\"\n    \"TopologicalTorsionFP\", \"Fingerprint\", \"Topological Torsion fingerprints\"\n    \"OrbitalFieldMatrix\", \"Structure\", \"Representation based on the valence shell electrons of neighboring atoms\"\n    \"RadialDistributionFunction\", \"Structure\", \"Radial distribution in crystal\"\n    \"FrozenFeaturizer\", \"NN \", \"Neural Network Extracted \"\n\n\n-------------------------\nCompositional descriptors\n-------------------------\n\nXenonPy can calculate 290 compositional features for a given chemical composition.\nThis calculation uses the information of the 58 element-level property data recorded in ``elements_completed``.\nSee :ref:`features:Data access` for details.\n\n    >>> from xenonpy.descriptor import Compositions\n    >>> cal = Compositions()\n    >>> cal\n    Compositions:\n      |- composition:\n      |  |- Counting\n      |  |- WeightedAverage\n      |  |- WeightedSum\n      |  |- WeightedVariance\n      |  |- GeometricMean\n      |  |- HarmonicMean\n      |  |- MaxPooling\n      |  |- MinPooling\n\nThe structure information of the calculator ``Cal`` is shown above.\nThis information tells us ``Cal`` has one featurizer group called **composition** with featurizers\n``WeightedAvgFeature``, ``WeightedSumFeature``, ``WeightedVarFeature``, ``MaxFeature`` and ``MinFeature`` in it.\n\nTo use this calculator, users have to structure an iterable object that contains the information of compounds' composition, then feed it to the method ``transform`` or ``fit_transform`` in ``cal``.\nThese methods accept two types of input, the ``pymatgen.Structure`` objects, or dicts which have the structure like `{'H': 2, 'O': 1}`.\n\nUsing our sample data, users will obtain a pandas.DataFrame object that contains all the compositional descriptors.\n\n    >>> from xenonpy.datatools import preset\n    >>> samples = preset.mp_samples\n    >>> comps = samples['composition']\n    >>> descriptor = cal.transform(comps)\n    >>> descriptor\n         ave:atomic_number  ...  min:Polarizability\n    0            24.666667  ...            0.802000\n    1            33.000000  ...            1.100000\n    2            21.600000  ...            0.802000\n    ...                ...  ...                 ...\n    928          44.500000  ...            5.500000\n    929          24.250000  ...           25.000000\n    930          26.750000  ...            4.800000\n    931          36.000000  ...            6.600000\n    932          16.500000  ...            0.802000\n    [933 rows x 290 columns]\n\nwhere\n\n    >>> comps.__class__\n    pandas.core.series.Series\n    >>> comps[0].__class__\n    dict\n\n\nIf the input is a pandas.DataFrame object, the calculator will first try to read the data columns that have the same name as the featurizer groups.\nFor example, the name of the featurizer group in the example above is **composition**.\nTherefore, the whole object entry can be fed into the calculator's methods without explicitly extracting the **composition** column in the ``samples``:\n\n    >>> descriptor = cal.transform(samples)\n    >>> descriptor\n         ave:atomic_number  ...  min:Polarizability\n    0            24.666667  ...            0.802000\n    1            33.000000  ...            1.100000\n    2            21.600000  ...            0.802000\n    ...                ...  ...                 ...\n    928          44.500000  ...            5.500000\n    929          24.250000  ...           25.000000\n    930          26.750000  ...            4.800000\n    931          36.000000  ...            6.600000\n    932          16.500000  ...            0.802000\n    [933 rows x 290 columns]\n\nThis does the same work as the previous one.\n\n\n----------------------\nStructural descriptors\n----------------------\n\nSimilar to the ``Compositions`` calculator, ``Structures`` accepts ``pymatgen.Structure`` objects as its input, and then return calculated results as a pandas.DataFrame.\n\n    >>> from xenonpy.descriptor import Structures\n    >>> cal = Structures()\n    >>> cal\n    Structures:\n      |- structure:\n      |  |- RadialDistributionFunction\n      |  |- OrbitalFieldMatrix\n\n``Structures`` contains one featurizer group called **structure** with ``RadialDistributionFunction`` and ``OrbitalFieldMatrix`` in it.\n``samples`` also has the structure information. We can use these to calculate structural descriptors.\n\n    >>> descriptor = cal.transform(samples)\n\nThis will take 3 ~ 5 min to run and finally, you will get:\n\n    >>> descriptor.head(5)\n                0.1  0.2  0.30000000000000004  ...  f14_f12  f14_f13  f14_f14\n    mp-1008807  0.0  0.0                  0.0  ...      0.0      0.0   0.0000\n    mp-1009640  0.0  0.0                  0.0  ...      0.0      0.0   0.0000\n    mp-1016825  0.0  0.0                  0.0  ...      0.0      0.0   0.0000\n    mp-1017582  0.0  0.0                  0.0  ...      0.0      0.0   0.3851\n    mp-1021511  0.0  0.0                  0.0  ...      0.0      0.0   0.0000\n    [5 rows x 1224 columns]\n\n\n-------\nAdvance\n-------\n\nThere are more details of the descriptor calculator system that are not yet included in this tutorial.\nBefore we complete this document, you can check out https://github.com/yoshida-lab/XenonPy/blob/master/samples/custom_descriptor_calculator.ipynb for more information.\n"
  },
  {
    "path": "docs/source/tutorials/3-visualization.rst",
    "content": "=============\nVisualization\n=============\n\nDescriptors on a set of given materials could be displayed as a heatmap, which helps you to understand the descriptor-property relationships.\nThis tutorial will show you how to draw a heatmap.\n\n\n------------------\nDescriptor heatmap\n------------------\n\nWe will use ``Composition`` and ``density`` as the descriptors and target property, respectively, for a step-by-step demonstration of how to draw a heatmap.\n\n1. calculate descriptors\n\n    .. code-block:: python\n\n        from xenonpy.datatools import preset\n        from xenonpy.descriptor import Compositions\n\n        samples = preset.mp_samples\n        cal = Compositions()\n\n        descriptor = cal.transform(samples['composition'])\n\n2. sort descriptors by property values\n\n    .. code-block:: python\n\n        # use formation energy as our target\n        property_ = 'density'\n\n        # --- sort property\n        prop = samples[property_].dropna()\n        sorted_prop = prop.sort_values()\n\n        # --- sort descriptors\n        sorted_desc = descriptor.loc[sorted_prop.index]\n\n3. draw the heatmap\n\n    .. code-block:: python\n\n        # --- import necessary libraries\n\n        from xenonpy.visualization import DescriptorHeatmap\n\n        heatmap = DescriptorHeatmap(\n                bc=True,  # use box-cox transform\n                save=dict(fname='heatmap_density', dpi=200, bbox_inches='tight'),  # save figure to file\n                figsize=(70, 10))\n        heatmap.fit(sorted_desc)\n        heatmap.draw(sorted_prop)\n\n\nHere, we explain how to *read* the descriptor heatmap.\n\n.. figure:: ../_static/heatmap_density.png\n\n     Heatmap of ~70,000 compounds with 290 compositional descriptors sorted by their property's value.\n\nIn the heatmap of the descriptor matrix, the materials are arranged from the top to bottom in the increasing order\nof density. Plotting the descriptor-property relationships in this way, we could visually recognize which\ndescriptors are relevant or irrelevant to the prediction of formation energies. Relevant descriptors, which are linearly\nor nonlinearly dependent to formation energies, might exhibit certain patterns from top to bottom in the heatmap. For example,\na monotonic decrease or increase pattern would appear in a linearly dependent descriptor. On the other hand,\nirrelevant descriptors might exhibit no specific patterns.\n\nYou can test run using this sample code:\n\n    https://github.com/yoshida-lab/XenonPy/blob/master/samples/visualization.ipynb\n"
  },
  {
    "path": "docs/source/tutorials/4-random_nn_model_and_training.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {\n    \"slideshow\": {\n     \"slide_type\": \"-\"\n    }\n   },\n   \"source\": [\n    \"# Random NN models\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"This tutorial shows how to build neural network models.\\n\",\n    \"We will learn how to calculate compositional descriptors using `xenonpy.descriptor.Compositions` calculator and train our model using `xenonpy.model.training` modules.\\n\",\n    \"\\n\",\n    \"In this tutorial, we will use some inorganic sample data from materials project. \\n\",\n    \"If you don't have it, please see https://github.com/yoshida-lab/XenonPy/blob/master/samples/build_sample_data.ipynb.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### useful functions\\n\",\n    \"\\n\",\n    \"Running the following cell will load some commonly used packages, such as `numpy`, `pandas`, and so on. It will also import some in-house functions used in this tutorial. See `samples/tools.ipynb` to check what will be imported.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run tools.ipynb\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"## Sequential linear model\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"We will use `xenonpy.model.SequentialLinear` to build a sequential linear model. The basic layer in `SequentialLinear` model is `xenonpy.model.LinearLayer`\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"\\u001b[0;31mInit signature:\\u001b[0m\\n\",\n       \"\\u001b[0mSequentialLinear\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0min_features\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mout_features\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mbias\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mbool\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mTrue\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m*\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mh_neurons\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mTuple\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mfloat\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m...\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mTuple\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m...\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;34m(\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mh_bias\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mbool\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mTuple\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mbool\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m...\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mTrue\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mh_dropouts\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mfloat\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mTuple\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mfloat\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m...\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;36m0.1\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mh_normalizers\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mfloat\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mTuple\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mfloat\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m...\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;36m0.1\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mh_activation_funcs\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mCallable\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mTuple\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mCallable\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m...\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mReLU\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n       \"\\u001b[0;31mDocstring:\\u001b[0m     \\n\",\n       \"Sequential model with linear layers and configurable other hype-parameters.\\n\",\n       \"e.g. ``dropout``, ``hidden layers``\\n\",\n       \"\\u001b[0;31mInit docstring:\\u001b[0m\\n\",\n       \"Parameters\\n\",\n       \"----------\\n\",\n       \"in_features\\n\",\n       \"    Size of input.\\n\",\n       \"out_features\\n\",\n       \"    Size of output.\\n\",\n       \"bias\\n\",\n       \"    Enable ``bias`` in input layer.\\n\",\n       \"h_neurons\\n\",\n       \"    Number of neurons in hidden layers.\\n\",\n       \"    Can be a tuple of floats. In that case,\\n\",\n       \"    all these numbers will be used to calculate the neuron numbers.\\n\",\n       \"    e.g. (0.5, 0.4, ...) will be expanded as (in_features * 0.5, in_features * 0.4, ...)\\n\",\n       \"h_bias\\n\",\n       \"    ``bias`` in hidden layers.\\n\",\n       \"h_dropouts\\n\",\n       \"    Probabilities of dropout in hidden layers.\\n\",\n       \"h_normalizers\\n\",\n       \"    Momentum of batched normalizers in hidden layers.\\n\",\n       \"h_activation_funcs\\n\",\n       \"    Activation functions in hidden layers.\\n\",\n       \"\\u001b[0;31mFile:\\u001b[0m           ~/projects/XenonPy/xenonpy/model/sequential.py\\n\",\n       \"\\u001b[0;31mType:\\u001b[0m           type\\n\",\n       \"\\u001b[0;31mSubclasses:\\u001b[0m     \\n\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.model import SequentialLinear, LinearLayer\\n\",\n    \"SequentialLinear?\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"\\u001b[0;31mInit signature:\\u001b[0m\\n\",\n       \"\\u001b[0mLinearLayer\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0min_features\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mout_features\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mbias\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mbool\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mTrue\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m*\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mdropout\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mfloat\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;36m0.0\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mactivation_func\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mCallable\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mReLU\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mnormalizer\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mfloat\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;36m0.1\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n       \"\\u001b[0;31mDocstring:\\u001b[0m     \\n\",\n       \"Base NN layer. This is a wrap around PyTorch.\\n\",\n       \"See here for details: http://pytorch.org/docs/master/nn.html#\\n\",\n       \"\\u001b[0;31mInit docstring:\\u001b[0m\\n\",\n       \"Parameters\\n\",\n       \"----------\\n\",\n       \"in_features:\\n\",\n       \"    Size of each input sample.\\n\",\n       \"out_features:\\n\",\n       \"    Size of each output sample\\n\",\n       \"dropout: float\\n\",\n       \"    Probability of an element to be zeroed. Default: 0.5\\n\",\n       \"activation_func: func\\n\",\n       \"    Activation function.\\n\",\n       \"normalizer: func\\n\",\n       \"    Normalization layers\\n\",\n       \"\\u001b[0;31mFile:\\u001b[0m           ~/projects/XenonPy/xenonpy/model/sequential.py\\n\",\n       \"\\u001b[0;31mType:\\u001b[0m           type\\n\",\n       \"\\u001b[0;31mSubclasses:\\u001b[0m     \\n\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"LinearLayer?\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Following the official suggestion from PyTorch, `SequentialLinear` is a python class that inherit the `torch.nn.Module` class. Users can specify the hyperparameters to get a fully customized model object. For example:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=232, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(232, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=232, out_features=203, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(203, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_2): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=203, out_features=174, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(174, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=174, out_features=1, bias=True)\\n\",\n       \")\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"model = SequentialLinear(290, 1, h_neurons=(0.8, 0.7, 0.6))\\n\",\n    \"model\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### fully randomized model generation\\n\",\n    \"\\n\",\n    \"Process of random model generation:\\n\",\n    \"\\n\",\n    \"1. using a random parameter generator to generate a set of parameter.\\n\",\n    \"2. using the generated parameter set to setup a model object.\\n\",\n    \"3. loop step 1 and 2 as many times as needed.\\n\",\n    \"\\n\",\n    \"We provided a general parameter generator `xenonpy.utils.ParameterGenerator`  to do all the 3 steps for any callable object.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"\\u001b[0;31mInit signature:\\u001b[0m\\n\",\n       \"\\u001b[0mParameterGenerator\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mseed\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m**\\u001b[0m\\u001b[0mkwargs\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mAny\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mSequence\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mCallable\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mDict\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n       \"\\u001b[0;31mDocstring:\\u001b[0m      Generator for parameter set generating.\\n\",\n       \"\\u001b[0;31mInit docstring:\\u001b[0m\\n\",\n       \"Parameters\\n\",\n       \"----------\\n\",\n       \"seed\\n\",\n       \"    Numpy random seed.\\n\",\n       \"kwargs\\n\",\n       \"    Parameter candidate.\\n\",\n       \"\\u001b[0;31mFile:\\u001b[0m           ~/projects/XenonPy/xenonpy/utils/parameter_gen.py\\n\",\n       \"\\u001b[0;31mType:\\u001b[0m           type\\n\",\n       \"\\u001b[0;31mSubclasses:\\u001b[0m     \\n\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.utils import ParameterGenerator\\n\",\n    \"ParameterGenerator?\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Calling an instance of `ParameterGenerator` will return a generator.\\n\",\n    \"This generator can randomly select parameters from parameter candidates and yield them as a dict. This is what we want in step 1.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from math import ceil\\n\",\n    \"from random import uniform\\n\",\n    \"\\n\",\n    \"generator = ParameterGenerator(\\n\",\n    \"    in_features=290,\\n\",\n    \"    out_features=1,\\n\",\n    \"    h_neurons=dict(\\n\",\n    \"        data=[ceil(uniform(0.1, 1.2) * 290) for _ in range(100)], \\n\",\n    \"        repeat=(2, 3)\\n\",\n    \"    )\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Because `generator` is a generator, `for ... in ...` statement can be applied. \\n\",\n    \"For example, we can use `for parameters in generator(num_of_models)` to loop all these generated parameter sets.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (70, 109)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (135, 45)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (216, 261, 79)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (111, 88, 49)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (216, 79, 47)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (161, 45)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (193, 161, 78)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (90, 36, 234)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (230, 83, 295)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (171, 247)}\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"for parameters in generator(num=10):\\n\",\n    \"    print(parameters)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"For step 2, we can give a model class to the `factory` parameter as a factory function.\\n\",\n    \"If `factory` parameter is given, generator will feed generated parameters to the factory function automatically and yield the result as a second return in each loop. For example:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"parameters:  {'in_features': 290, 'out_features': 1, 'h_neurons': (182, 335, 204)}\\n\",\n      \"SequentialLinear(\\n\",\n      \"  (layer_0): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=290, out_features=182, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(182, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_1): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=182, out_features=335, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(335, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_2): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=335, out_features=204, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(204, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (output): Linear(in_features=204, out_features=1, bias=True)\\n\",\n      \") \\n\",\n      \"\\n\",\n      \"parameters:  {'in_features': 290, 'out_features': 1, 'h_neurons': (108, 255)}\\n\",\n      \"SequentialLinear(\\n\",\n      \"  (layer_0): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=290, out_features=108, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(108, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_1): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=108, out_features=255, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(255, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (output): Linear(in_features=255, out_features=1, bias=True)\\n\",\n      \") \\n\",\n      \"\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"for parameters, model in generator(2, factory=SequentialLinear):\\n\",\n    \"    print('parameters: ', parameters)\\n\",\n    \"    print(model, '\\\\n')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### scheduled random model\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"We also enable users to generate parameters in a functional way by given a function as candidate parameters. In this case, the function accept an int number as vector length and a vector of generated parameters. For example, generate a `n` length vector with float numbers sorted in ascending.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"generator = ParameterGenerator(\\n\",\n    \"    in_features=290,\\n\",\n    \"    out_features=1,\\n\",\n    \"    h_neurons=dict(\\n\",\n    \"        data=lambda n: sorted(np.random.uniform(0.2, 0.8, size=n), reverse=True), \\n\",\n    \"        repeat=(2, 3)\\n\",\n    \"    )\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"parameters:  {'in_features': 290, 'out_features': 1, 'h_neurons': (0.7954011465554711, 0.6993610045591458)}\\n\",\n      \"SequentialLinear(\\n\",\n      \"  (layer_0): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=290, out_features=231, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(231, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_1): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=231, out_features=203, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(203, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (output): Linear(in_features=203, out_features=1, bias=True)\\n\",\n      \") \\n\",\n      \"\\n\",\n      \"parameters:  {'in_features': 290, 'out_features': 1, 'h_neurons': (0.798810246990777, 0.38584535382368323, 0.29569841893337045)}\\n\",\n      \"SequentialLinear(\\n\",\n      \"  (layer_0): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=290, out_features=232, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(232, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_1): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=232, out_features=112, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(112, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_2): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=112, out_features=86, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(86, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (output): Linear(in_features=86, out_features=1, bias=True)\\n\",\n      \") \\n\",\n      \"\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"for parameters, model in generator(2, factory=SequentialLinear):\\n\",\n    \"    print('parameters: ', parameters)\\n\",\n    \"    print(model, '\\\\n')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"## Model training\\n\",\n    \"\\n\",\n    \"We provide a general and extendable model training system for neural network models.\\n\",\n    \"By customizing the extensions, users can fully control their model training process, and save the training results following the *XenonPy.MDL* format automatically.\\n\",\n    \"\\n\",\n    \"All these modules and extensions are under the `xenonpy.model.training`.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import torch\\n\",\n    \"import matplotlib.pyplot as plt\\n\",\n    \"from pymatgen import Structure\\n\",\n    \"\\n\",\n    \"from xenonpy.model.training import Trainer, SGD, MSELoss, Adam, ReduceLROnPlateau, ExponentialLR, ClipValue\\n\",\n    \"\\n\",\n    \"from xenonpy.datatools import preset, Splitter\\n\",\n    \"from xenonpy.descriptor import Compositions\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### prepare training/testing data\\n\",\n    \"\\n\",\n    \"If you followed the tutorial in https://github.com/yoshida-lab/XenonPy/blob/master/samples/build_sample_data.ipynb,\\n\",\n    \"the sample data should be save at `~/.xenonpy/userdata` with name `mp_samples.pd.xz`.\\n\",\n    \"You can use `pd.read_pickle` to load this file but we suggest that you use our `xenonpy.datatools.preset` module.\\n\",\n    \"\\n\",\n    \"We chose `volume` as the example to demonstrate how to use our training system. We only use the data which `volume` are smaller than 2,500 to avoid the disparate data.\\n\",\n    \"we select data in `pandas.DataFrame` and calculate the descriptors using `xenonpy.descriptor.Compositions` calculator.\\n\",\n    \"It is noticed that the input for a neuron network model in pytorch must has shape (N x M x ...), which mean if the input is a 1-D vector, it should be reshaped to 2-D, e.g. (N) -> (N x 1).\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>band_gap</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>density</th>\\n\",\n       \"      <th>e_above_hull</th>\\n\",\n       \"      <th>efermi</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>final_energy_per_atom</th>\\n\",\n       \"      <th>formation_energy_per_atom</th>\\n\",\n       \"      <th>pretty_formula</th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"      <th>volume</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1008807</td>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"      <td>{'Rb': 1.0, 'Cu': 1.0, 'O': 1.0}</td>\\n\",\n       \"      <td>4.784634</td>\\n\",\n       \"      <td>0.996372</td>\\n\",\n       \"      <td>1.100617</td>\\n\",\n       \"      <td>[Rb, Cu, O]</td>\\n\",\n       \"      <td>-3.302762</td>\\n\",\n       \"      <td>-0.186408</td>\\n\",\n       \"      <td>RbCuO</td>\\n\",\n       \"      <td>[[-3.05935361 -3.05935361 -3.05935361] Rb, [0....</td>\\n\",\n       \"      <td>57.268924</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1009640</td>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"      <td>{'Pr': 1.0, 'N': 1.0}</td>\\n\",\n       \"      <td>8.145777</td>\\n\",\n       \"      <td>0.759393</td>\\n\",\n       \"      <td>5.213442</td>\\n\",\n       \"      <td>[Pr, N]</td>\\n\",\n       \"      <td>-7.082624</td>\\n\",\n       \"      <td>-0.714336</td>\\n\",\n       \"      <td>PrN</td>\\n\",\n       \"      <td>[[0. 0. 0.] Pr, [1.57925232 1.57925232 1.58276...</td>\\n\",\n       \"      <td>31.579717</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1016825</td>\\n\",\n       \"      <td>0.7745</td>\\n\",\n       \"      <td>{'Hf': 1.0, 'Mg': 1.0, 'O': 3.0}</td>\\n\",\n       \"      <td>6.165888</td>\\n\",\n       \"      <td>0.589550</td>\\n\",\n       \"      <td>2.424570</td>\\n\",\n       \"      <td>[Hf, Mg, O]</td>\\n\",\n       \"      <td>-7.911723</td>\\n\",\n       \"      <td>-3.060060</td>\\n\",\n       \"      <td>HfMgO3</td>\\n\",\n       \"      <td>[[2.03622802 2.03622802 2.03622802] Hf, [0. 0....</td>\\n\",\n       \"      <td>67.541269</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            band_gap                       composition   density  \\\\\\n\",\n       \"mp-1008807    0.0000  {'Rb': 1.0, 'Cu': 1.0, 'O': 1.0}  4.784634   \\n\",\n       \"mp-1009640    0.0000             {'Pr': 1.0, 'N': 1.0}  8.145777   \\n\",\n       \"mp-1016825    0.7745  {'Hf': 1.0, 'Mg': 1.0, 'O': 3.0}  6.165888   \\n\",\n       \"\\n\",\n       \"            e_above_hull    efermi     elements  final_energy_per_atom  \\\\\\n\",\n       \"mp-1008807      0.996372  1.100617  [Rb, Cu, O]              -3.302762   \\n\",\n       \"mp-1009640      0.759393  5.213442      [Pr, N]              -7.082624   \\n\",\n       \"mp-1016825      0.589550  2.424570  [Hf, Mg, O]              -7.911723   \\n\",\n       \"\\n\",\n       \"            formation_energy_per_atom pretty_formula  \\\\\\n\",\n       \"mp-1008807                  -0.186408          RbCuO   \\n\",\n       \"mp-1009640                  -0.714336            PrN   \\n\",\n       \"mp-1016825                  -3.060060         HfMgO3   \\n\",\n       \"\\n\",\n       \"                                                    structure     volume  \\n\",\n       \"mp-1008807  [[-3.05935361 -3.05935361 -3.05935361] Rb, [0....  57.268924  \\n\",\n       \"mp-1009640  [[0. 0. 0.] Pr, [1.57925232 1.57925232 1.58276...  31.579717  \\n\",\n       \"mp-1016825  [[2.03622802 2.03622802 2.03622802] Hf, [0. 0....  67.541269  \"\n      ]\n     },\n     \"execution_count\": 12,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# if you have not have the samples data\\n\",\n    \"# preset.build('mp_samples', api_key=<your materials project api key>)\\n\",\n    \"\\n\",\n    \"from xenonpy.datatools import preset\\n\",\n    \"\\n\",\n    \"data = preset.mp_samples\\n\",\n    \"data.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"In case of the system did not automatically download some descriptor data in XenonPy, please run the following code to sync the data.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 13,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"fetching dataset `elements` from https://github.com/yoshida-lab/dataset/releases/download/v0.1.3/elements.pd.xz.\\n\",\n      \"fetching dataset `elements_completed` from https://github.com/yoshida-lab/dataset/releases/download/v0.1.3/elements_completed.pd.xz.\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.datatools import preset\\n\",\n    \"preset.sync('elements')\\n\",\n    \"preset.sync('elements_completed')\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1008807</td>\\n\",\n       \"      <td>24.666667</td>\\n\",\n       \"      <td>174.067140</td>\\n\",\n       \"      <td>209.333333</td>\\n\",\n       \"      <td>25.666667</td>\\n\",\n       \"      <td>55.004267</td>\\n\",\n       \"      <td>1297.063333</td>\\n\",\n       \"      <td>72.868680</td>\\n\",\n       \"      <td>1646.90</td>\\n\",\n       \"      <td>139.333333</td>\\n\",\n       \"      <td>128.333333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.360</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>349.5</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1009640</td>\\n\",\n       \"      <td>33.000000</td>\\n\",\n       \"      <td>137.000000</td>\\n\",\n       \"      <td>232.500000</td>\\n\",\n       \"      <td>19.050000</td>\\n\",\n       \"      <td>77.457330</td>\\n\",\n       \"      <td>1931.200000</td>\\n\",\n       \"      <td>43.182441</td>\\n\",\n       \"      <td>1892.85</td>\\n\",\n       \"      <td>137.000000</td>\\n\",\n       \"      <td>123.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.192</td>\\n\",\n       \"      <td>0.02583</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>166.0</td>\\n\",\n       \"      <td>193.0</td>\\n\",\n       \"      <td>360.6</td>\\n\",\n       \"      <td>333.6</td>\\n\",\n       \"      <td>1.100</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1016825</td>\\n\",\n       \"      <td>21.600000</td>\\n\",\n       \"      <td>153.120852</td>\\n\",\n       \"      <td>203.400000</td>\\n\",\n       \"      <td>13.920000</td>\\n\",\n       \"      <td>50.158400</td>\\n\",\n       \"      <td>1420.714000</td>\\n\",\n       \"      <td>76.663625</td>\\n\",\n       \"      <td>343.82</td>\\n\",\n       \"      <td>102.800000</td>\\n\",\n       \"      <td>96.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.146</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>302.1</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>3 rows × 290 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-1008807          24.666667         174.067140              209.333333   \\n\",\n       \"mp-1009640          33.000000         137.000000              232.500000   \\n\",\n       \"mp-1016825          21.600000         153.120852              203.400000   \\n\",\n       \"\\n\",\n       \"            ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-1008807          25.666667          55.004267        1297.063333   \\n\",\n       \"mp-1009640          19.050000          77.457330        1931.200000   \\n\",\n       \"mp-1016825          13.920000          50.158400        1420.714000   \\n\",\n       \"\\n\",\n       \"            ave:bulk_modulus  ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-1008807         72.868680    1646.90                   139.333333   \\n\",\n       \"mp-1009640         43.182441    1892.85                   137.000000   \\n\",\n       \"mp-1016825         76.663625     343.82                   102.800000   \\n\",\n       \"\\n\",\n       \"            ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"mp-1008807                  128.333333  ...                1.0         2.0   \\n\",\n       \"mp-1009640                  123.500000  ...                2.0         2.0   \\n\",\n       \"mp-1016825                   96.000000  ...                2.0         2.0   \\n\",\n       \"\\n\",\n       \"            min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"mp-1008807              0.360                   0.02658           152.0   \\n\",\n       \"mp-1009640              0.192                   0.02583           155.0   \\n\",\n       \"mp-1016825              0.146                   0.02658           152.0   \\n\",\n       \"\\n\",\n       \"            min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"mp-1008807                   150.0               182.0               349.5   \\n\",\n       \"mp-1009640                   166.0               193.0               360.6   \\n\",\n       \"mp-1016825                   150.0               182.0               302.1   \\n\",\n       \"\\n\",\n       \"            min:sound_velocity  min:Polarizability  \\n\",\n       \"mp-1008807               317.5               0.802  \\n\",\n       \"mp-1009640               333.6               1.100  \\n\",\n       \"mp-1016825               317.5               0.802  \\n\",\n       \"\\n\",\n       \"[3 rows x 290 columns]\"\n      ]\n     },\n     \"execution_count\": 14,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>volume</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1008807</td>\\n\",\n       \"      <td>57.268924</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1009640</td>\\n\",\n       \"      <td>31.579717</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1016825</td>\\n\",\n       \"      <td>67.541269</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"               volume\\n\",\n       \"mp-1008807  57.268924\\n\",\n       \"mp-1009640  31.579717\\n\",\n       \"mp-1016825  67.541269\"\n      ]\n     },\n     \"execution_count\": 14,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"prop = data[data.volume <= 2500]['volume'].to_frame()  # reshape to 2-D\\n\",\n    \"desc = Compositions(featurizers='classic').transform(data.loc[prop.index]['composition'])\\n\",\n    \"\\n\",\n    \"desc.head(3)\\n\",\n    \"prop.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.datatools import preset\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Use the `xenonpy.datatools.Splitter` to split data into training and test sets.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"\\u001b[0;31mInit signature:\\u001b[0m\\n\",\n       \"\\u001b[0mSplitter\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0msize\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m*\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mtest_size\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mfloat\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mint\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;36m0.2\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mk_fold\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mIterable\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mrandom_state\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mshuffle\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mbool\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mTrue\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n       \"\\u001b[0;31mDocstring:\\u001b[0m      Data splitter for train and test\\n\",\n       \"\\u001b[0;31mInit docstring:\\u001b[0m\\n\",\n       \"Parameters\\n\",\n       \"----------\\n\",\n       \"size\\n\",\n       \"    Total sample size.\\n\",\n       \"    All data must have same length of their first dim,\\n\",\n       \"test_size\\n\",\n       \"    If float, should be between ``0.0`` and ``1.0`` and represent the proportion\\n\",\n       \"    of the dataset to include in the test split. If int, represents the\\n\",\n       \"    absolute number of test samples. Can be ``0`` if cv is ``None``.\\n\",\n       \"    In this case, :meth:`~Splitter.cv` will yield a tuple only contains ``training`` and ``validation``\\n\",\n       \"    on each step. By default, the value is set to 0.2.\\n\",\n       \"k_fold\\n\",\n       \"    Number of k-folds.\\n\",\n       \"    If ``int``, Must be at least 2.\\n\",\n       \"    If ``Iterable``, it should provide label for each element which will be used for group cv.\\n\",\n       \"    In this case, the input of :meth:`~Splitter.cv` must be a :class:`pandas.DataFrame` object.\\n\",\n       \"    Default value is None to specify no cv.\\n\",\n       \"random_state\\n\",\n       \"    If int, random_state is the seed used by the random number generator;\\n\",\n       \"    Default is None.\\n\",\n       \"shuffle\\n\",\n       \"    Whether or not to shuffle the data before splitting.\\n\",\n       \"\\u001b[0;31mFile:\\u001b[0m           ~/projects/XenonPy/xenonpy/datatools/splitter.py\\n\",\n       \"\\u001b[0;31mType:\\u001b[0m           type\\n\",\n       \"\\u001b[0;31mSubclasses:\\u001b[0m     \\n\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"Splitter?\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 17,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(738, 290)\"\n      ]\n     },\n     \"execution_count\": 17,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(738, 1)\"\n      ]\n     },\n     \"execution_count\": 17,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(185, 290)\"\n      ]\n     },\n     \"execution_count\": 17,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(185, 1)\"\n      ]\n     },\n     \"execution_count\": 17,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"sp = Splitter(prop.shape[0])\\n\",\n    \"x_train, x_val, y_train, y_val = sp.split(desc, prop)\\n\",\n    \"\\n\",\n    \"x_train.shape\\n\",\n    \"y_train.shape\\n\",\n    \"x_val.shape\\n\",\n    \"y_val.shape\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### model training\\n\",\n    \"\\n\",\n    \"Model training in pytorch is very flexible.\\n\",\n    \"The [official document](https://pytorch.org/tutorials/beginner/pytorch_with_examples.html) explains the concept with examples.\\n\",\n    \"In short, training a neuron network model includes:\\n\",\n    \"1. calculating loss of training data for the model.\\n\",\n    \"2. executing the backpropagation to update the weights between each neuron.\\n\",\n    \"3. looping over step 1 and 2 until convergence.\\n\",\n    \"\\n\",\n    \"In step 1, a calculator, often called `loss function`, is needed to calculate the loss.\\n\",\n    \"In step 2, an optimizer will be used.\\n\",\n    \"`xenonpy.model.training.Trainer` covers step 3.\\n\",\n    \"\\n\",\n    \"Here is how you will do it in XenonPy:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=232, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(232, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=232, out_features=174, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(174, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_2): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=174, out_features=116, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(116, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=116, out_features=58, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(58, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=58, out_features=1, bias=True)\\n\",\n       \")\"\n      ]\n     },\n     \"execution_count\": 18,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"model = SequentialLinear(290, 1, h_neurons=(0.8, 0.6, 0.4, 0.2))\\n\",\n    \"model\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 19,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"Trainer(clip_grad=None, cuda=None, epochs=200, loss_func=MSELoss(),\\n\",\n       \"        lr_scheduler=None,\\n\",\n       \"        model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=232, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(232, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Li...\\n\",\n       \"    (linear): Linear(in_features=116, out_features=58, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(58, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=58, out_features=1, bias=True)\\n\",\n       \"),\\n\",\n       \"        non_blocking=False,\\n\",\n       \"        optimizer=Adam (\\n\",\n       \"Parameter Group 0\\n\",\n       \"    amsgrad: False\\n\",\n       \"    betas: (0.9, 0.999)\\n\",\n       \"    eps: 1e-08\\n\",\n       \"    lr: 0.01\\n\",\n       \"    weight_decay: 0\\n\",\n       \"))\"\n      ]\n     },\n     \"execution_count\": 19,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"trainer = Trainer(\\n\",\n    \"    model=model,\\n\",\n    \"    optimizer=Adam(lr=0.01),\\n\",\n    \"    loss_func=MSELoss()\\n\",\n    \")\\n\",\n    \"trainer\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 20,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training: 100%|██████████| 400/400 [00:06<00:00, 60.86it/s]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"trainer.fit(\\n\",\n    \"    x_train=torch.tensor(x_train.values, dtype=torch.float),\\n\",\n    \"    y_train=torch.tensor(y_train.values, dtype=torch.float),\\n\",\n    \"    epochs=400\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 21,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>total_iters</th>\\n\",\n       \"      <th>i_epoch</th>\\n\",\n       \"      <th>i_batch</th>\\n\",\n       \"      <th>train_mse_loss</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>397</td>\\n\",\n       \"      <td>397</td>\\n\",\n       \"      <td>398</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>3684.717041</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>398</td>\\n\",\n       \"      <td>398</td>\\n\",\n       \"      <td>399</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>3058.761719</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>399</td>\\n\",\n       \"      <td>399</td>\\n\",\n       \"      <td>400</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>3039.683350</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"     total_iters  i_epoch  i_batch  train_mse_loss\\n\",\n       \"397          397      398        1     3684.717041\\n\",\n       \"398          398      399        1     3058.761719\\n\",\n       \"399          399      400        1     3039.683350\"\n      ]\n     },\n     \"execution_count\": 21,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<matplotlib.axes._subplots.AxesSubplot at 0x1a2ce256d0>\"\n      ]\n     },\n     \"execution_count\": 21,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 1000x500 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"_, ax = plt.subplots(figsize=(10, 5), dpi=100)\\n\",\n    \"trainer.training_info.tail(3)\\n\",\n    \"trainer.training_info.plot(y=['train_mse_loss'], ax=ax)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 22,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Missing directory and/or file name information!\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x720 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"y_pred = trainer.predict(x_in=torch.tensor(x_val.values, dtype=torch.float)).detach().numpy().flatten()\\n\",\n    \"y_true = y_val.values.flatten()\\n\",\n    \"\\n\",\n    \"y_fit_pred = trainer.predict(x_in=torch.tensor(x_train.values, dtype=torch.float)).detach().numpy().flatten()\\n\",\n    \"y_fit_true = y_train.values.flatten()\\n\",\n    \"\\n\",\n    \"draw(y_true, y_pred, y_fit_true, y_fit_pred, prop_name='Volume ($\\\\AA^3$)')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"You can see that although `trainer` can keep training info automatically for us, we still need to convert `DataFrame` to `torch.Tensor` and convert dtype from `np.double` to `torch.float` during training, and eventually convert them back during prediction ourselves. Also, overfitting could be observed in the **prediction vs observation** plot. One possible caused is using all training data in each epoch of the training process. We can use a technique called mini-batch to avoid overfitting, but that will require more coding.\\n\",\n    \"\\n\",\n    \"To skip these tedious coding steps, we provide an extension system.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"First, we use `ArrayDataset` to wrap our data, and use `torch.utils.data.DataLoader` to a build mini-batch loader.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 23,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.model.training.dataset import ArrayDataset\\n\",\n    \"from torch.utils.data import DataLoader\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 24,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"train_dataset = DataLoader(ArrayDataset(x_train, y_train), shuffle=True, batch_size=100)\\n\",\n    \"val_dataset = DataLoader(ArrayDataset(x_val, y_val), batch_size=1000)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Second, we use `TensorConverter` extension to automatically convert data between `numpy` and `torch.Tensor`.\\n\",\n    \"Additionally, we want to trace some stopping criterion and use early stopping when these criterion stop improving.\\n\",\n    \"This can be done by using `Validator`.\\n\",\n    \"\\n\",\n    \"At last, to save our model for latter use, just add `Persist` to the trainer and saving will be done in slient.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 25,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.model.training.extension import Validator, TensorConverter, Persist\\n\",\n    \"from xenonpy.model.training.dataset import ArrayDataset\\n\",\n    \"from xenonpy.model.utils import regression_metrics\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"We use `trainer.extend` method to stack up extensions. Note that extensions will be executed in the order of insertion, so `TensorConverter` should always go first and `Persist` be the last.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 26,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"trainer = Trainer(\\n\",\n    \"    optimizer=Adam(lr=0.01),\\n\",\n    \"    loss_func=MSELoss(),\\n\",\n    \").extend(\\n\",\n    \"    TensorConverter(),\\n\",\n    \"    Validator(metrics_func=regression_metrics, early_stopping=30, trace_order=5, mae=0.0, pearsonr=1.0),\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 27,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"\\u001b[0;31mInit signature:\\u001b[0m\\n\",\n       \"\\u001b[0mPersist\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mpath\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mpathlib\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mPath\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mstr\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;34m'.'\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m*\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mmodel_class\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mCallable\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mmodel_params\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mtuple\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mdict\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m<\\u001b[0m\\u001b[0mbuilt\\u001b[0m\\u001b[0;34m-\\u001b[0m\\u001b[0;32min\\u001b[0m \\u001b[0mfunction\\u001b[0m \\u001b[0many\\u001b[0m\\u001b[0;34m>\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mincrement\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;32mFalse\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0msync_training_step\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;32mFalse\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m**\\u001b[0m\\u001b[0mdescribe\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mAny\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n       \"\\u001b[0;31mDocstring:\\u001b[0m      Trainer extension for data persistence\\n\",\n       \"\\u001b[0;31mInit docstring:\\u001b[0m\\n\",\n       \"Parameters\\n\",\n       \"----------\\n\",\n       \"path\\n\",\n       \"    Path for model saving.\\n\",\n       \"model_class\\n\",\n       \"    A factory function for model reconstructing.\\n\",\n       \"    In most case this is the model class inherits from :class:`torch.nn.Module`\\n\",\n       \"model_params\\n\",\n       \"    The parameters for model reconstructing.\\n\",\n       \"    This can be anything but in general this is a dict which can be used as kwargs parameters.\\n\",\n       \"increment\\n\",\n       \"    If ``True``, dir name of path will be decorated with a auto increment number,\\n\",\n       \"    e.g. use ``model_dir@1`` for ``model_dir``.\\n\",\n       \"sync_training_step\\n\",\n       \"    If ``True``, will save ``trainer.training_info`` at each iteration.\\n\",\n       \"    Default is ``False``, only save ``trainer.training_info`` at each epoch.\\n\",\n       \"describe:\\n\",\n       \"    Any other information to describe this model.\\n\",\n       \"    These information will be saved under model dir by name ``describe.pkl.z``.\\n\",\n       \"\\u001b[0;31mFile:\\u001b[0m           ~/projects/XenonPy/xenonpy/model/training/extension/persist.py\\n\",\n       \"\\u001b[0;31mType:\\u001b[0m           type\\n\",\n       \"\\u001b[0;31mSubclasses:\\u001b[0m     \\n\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"Persist?\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"`Persist` need a path to save model. For convenience, we prepare the path name by concatenating the number of neurons in a model.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 28,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def make_name(model):\\n\",\n    \"    name = []\\n\",\n    \"    for n, m in model.named_children():\\n\",\n    \"        if 'layer_' in n:\\n\",\n    \"            name.append(str(m.linear.in_features))\\n\",\n    \"        else:\\n\",\n    \"            name.append(str(m.in_features))\\n\",\n    \"            name.append(str(m.out_features))\\n\",\n    \"    return '-'.join(name)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 29,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=232, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(232, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=232, out_features=174, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(174, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_2): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=174, out_features=116, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(116, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=116, out_features=58, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(58, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=58, out_features=1, bias=True)\\n\",\n       \")\"\n      ]\n     },\n     \"execution_count\": 29,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": []\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  12%|█▏        | 47/400 [00:15<02:06,  2.78it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 31 iterations, finish training at iteration 372\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"model = SequentialLinear(290, 1, h_neurons=(0.8, 0.6, 0.4, 0.2))\\n\",\n    \"model\\n\",\n    \"\\n\",\n    \"model_name = make_name(model)\\n\",\n    \"persist = Persist(\\n\",\n    \"    f'trained_models/{model_name}', \\n\",\n    \"    # -^- required -^-\\n\",\n    \"\\n\",\n    \"    # -v- optional -v-\\n\",\n    \"    increment=False, \\n\",\n    \"    sync_training_step=True,\\n\",\n    \"    author='Chang Liu',\\n\",\n    \"    email='liu.chang.1865@gmail.com',\\n\",\n    \"    dataset='materials project',\\n\",\n    \")\\n\",\n    \"_ = trainer.extend(persist)\\n\",\n    \"trainer.reset(to=model)\\n\",\n    \"\\n\",\n    \"trainer.fit(training_dataset=train_dataset, validation_dataset=val_dataset, epochs=400)\\n\",\n    \"persist(splitter=sp, data_indices=prop.index.tolist())  # <-- calling of this method only after the model training\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 30,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<matplotlib.axes._subplots.AxesSubplot at 0x1a2d100e10>\"\n      ]\n     },\n     \"execution_count\": 30,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 1500x750 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"_, ax = plt.subplots(figsize=(10, 5), dpi=150)\\n\",\n    \"trainer.training_info.plot(y=['train_mse_loss', 'val_mse'], ax=ax)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 31,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Missing directory and/or file name information!\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x720 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"y_pred, y_true = trainer.predict(dataset=val_dataset, checkpoint='pearsonr_1')\\n\",\n    \"y_fit_pred, y_fit_true = trainer.predict(dataset=train_dataset, checkpoint='pearsonr_1')\\n\",\n    \"draw(y_true, y_pred, y_fit_true, y_fit_pred, prop_name='Volume ($\\\\AA^3$)')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"## Combine random model generating and training\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 32,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"generator = ParameterGenerator(\\n\",\n    \"    in_features=290,\\n\",\n    \"    out_features=1,\\n\",\n    \"    h_neurons=dict(\\n\",\n    \"        data=lambda n: sorted(np.random.uniform(0.2, 0.8, size=n), reverse=True), \\n\",\n    \"        repeat=(3, 4)\\n\",\n    \"    )\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 33,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   0%|          | 0/400 [00:00<?, ?it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"SequentialLinear(\\n\",\n      \"  (layer_0): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=290, out_features=195, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(195, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_1): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=195, out_features=141, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(141, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_2): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=141, out_features=131, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(131, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_3): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=131, out_features=61, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(61, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (output): Linear(in_features=61, out_features=1, bias=True)\\n\",\n      \")\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": []\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  12%|█▏        | 48/400 [00:15<02:06,  2.79it/s]\\n\",\n      \"Training:   0%|          | 0/400 [00:00<?, ?it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 31 iterations, finish training at iteration 380\\n\",\n      \"SequentialLinear(\\n\",\n      \"  (layer_0): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=290, out_features=214, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(214, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_1): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=214, out_features=181, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(181, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_2): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=181, out_features=141, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(141, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_3): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=141, out_features=130, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(130, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (output): Linear(in_features=130, out_features=1, bias=True)\\n\",\n      \")\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": []\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  10%|█         | 42/400 [00:14<02:18,  2.59it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 31 iterations, finish training at iteration 333\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"for paras, model in generator(num=2, factory=SequentialLinear):\\n\",\n    \"    print(model)\\n\",\n    \"    model_name = make_name(model)\\n\",\n    \"    persist = Persist(\\n\",\n    \"        f'trained_models/{model_name}', \\n\",\n    \"        # -^- required -^-\\n\",\n    \"        \\n\",\n    \"        # -v- optional -v-\\n\",\n    \"        increment=False, \\n\",\n    \"        sync_training_step=True,\\n\",\n    \"        model_class=SequentialLinear,\\n\",\n    \"        model_params=paras,\\n\",\n    \"        author='Chang Liu',\\n\",\n    \"        email='liu.chang.1865@gmail.com',\\n\",\n    \"        dataset='materials project',\\n\",\n    \"    )\\n\",\n    \"    _ = trainer.extend(persist)\\n\",\n    \"    trainer.reset(to=model)\\n\",\n    \"    \\n\",\n    \"    trainer.fit(training_dataset=train_dataset, validation_dataset=val_dataset, epochs=400)\\n\",\n    \"    persist(splitter=sp, data_indices=prop.index.tolist())  # <-- calling of this method only after the model training\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.4\"\n  },\n  \"pycharm\": {\n   \"stem_cell\": {\n    \"cell_type\": \"raw\",\n    \"source\": [],\n    \"metadata\": {\n     \"collapsed\": false\n    }\n   }\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 2\n}"
  },
  {
    "path": "docs/source/tutorials/5-pre-trained_model_library.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# Pre-trained Model Library\\n\",\n    \"\\n\",\n    \"**XenonPy.MDL** is a library of pre-trained models that were obtained by feeding diverse materials data on structure-property relationships into neural networks and some other supervised learning models.\\n\",\n    \"\\n\",\n    \"XenonPy offers a simple-to-use toolchain to perform **transfer learning** with the given **pre-trained models** seamlessly.\\n\",\n    \"In this tutorial, we will focus on model querying and retrieving.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### useful functions\\n\",\n    \"\\n\",\n    \"Running the following cell will load some commonly used packages, such as [NumPy](https://numpy.org/), [pandas](https://pandas.pydata.org/), and so on. It will also import some in-house functions used in this tutorial. See *'tools.ipynb'* file to check what will be imported.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run tools.ipynb\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### access pre-trained models with MDL class\\n\",\n    \"\\n\",\n    \"We prepared a wide range of APIs to let you query and download our models.\\n\",\n    \"These APIs can be accessed via any HTTP requests.\\n\",\n    \"For convenience, we implemented some of the most popular APIs and wrapped them into XenonPy.\\n\",\n    \"All these functions can be accessed using `xenonpy.mdl.MDL`.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# --- import necessary libraries\\n\",\n    \"\\n\",\n    \"from xenonpy.mdl import MDL\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"MDL(api_key='anonymous.user.key', endpoint='http://xenon.ism.ac.jp/api')\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"'0.1.1'\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# --- init and check\\n\",\n    \"\\n\",\n    \"mdl = MDL()\\n\",\n    \"mdl\\n\",\n    \"\\n\",\n    \"mdl.version\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Noticed that ``mdl`` contains optional parameters ``api_key`` and ``endpoint``.\\n\",\n    \"``endpoint`` point to where data is fetched. ``api_key`` is an access token used to validate the authorization and action permissions.\\n\",\n    \"At this moment, the default key, ``anonymous.user.key``, is the only valid option.\\n\",\n    \"We will open the public registration system when the system is ready.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### querying\\n\",\n    \"\\n\",\n    \"There are many ways to query models. The most straightforward method is to use `mdl`.\\n\",\n    \"It accepts variable keywords as input and any hit keyword will be returned. For example, to query models that predict property **refractive index**:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"QueryModelDetails(api_key='anonymous.user.key', endpoint='http://xenon.ism.ac.jp/api', variables={'query': ('refractive',)})\\n\",\n       \"Queryable: \\n\",\n       \" id\\n\",\n       \" transferred\\n\",\n       \" succeed\\n\",\n       \" isRegression\\n\",\n       \" deprecated\\n\",\n       \" modelset\\n\",\n       \" method\\n\",\n       \" property\\n\",\n       \" descriptor\\n\",\n       \" lang\\n\",\n       \" accuracy\\n\",\n       \" precision\\n\",\n       \" recall\\n\",\n       \" f1\\n\",\n       \" sensitivity\\n\",\n       \" prevalence\\n\",\n       \" specificity\\n\",\n       \" ppv\\n\",\n       \" npv\\n\",\n       \" meanAbsError\\n\",\n       \" maxAbsError\\n\",\n       \" meanSquareError\\n\",\n       \" rootMeanSquareError\\n\",\n       \" r2\\n\",\n       \" pValue\\n\",\n       \" spearmanCorr\\n\",\n       \" pearsonCorr\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# --- query data\\n\",\n    \"\\n\",\n    \"query = mdl('refractive')\\n\",\n    \"query\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"You can see that run a querying method does not execute the querying immediately, but simply return a queryable object.\\n\",\n    \"If you print out the object, the `queryable` list will be shown. Only the variables in the list can be fetched from the server.\\n\",\n    \"\\n\",\n    \"Another way to get the `queryable` list is call `query.queryable` as below:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"['id',\\n\",\n       \" 'transferred',\\n\",\n       \" 'succeed',\\n\",\n       \" 'isRegression',\\n\",\n       \" 'deprecated',\\n\",\n       \" 'modelset',\\n\",\n       \" 'method',\\n\",\n       \" 'property',\\n\",\n       \" 'descriptor',\\n\",\n       \" 'lang',\\n\",\n       \" 'accuracy',\\n\",\n       \" 'precision',\\n\",\n       \" 'recall',\\n\",\n       \" 'f1',\\n\",\n       \" 'sensitivity',\\n\",\n       \" 'prevalence',\\n\",\n       \" 'specificity',\\n\",\n       \" 'ppv',\\n\",\n       \" 'npv',\\n\",\n       \" 'meanAbsError',\\n\",\n       \" 'maxAbsError',\\n\",\n       \" 'meanSquareError',\\n\",\n       \" 'rootMeanSquareError',\\n\",\n       \" 'r2',\\n\",\n       \" 'pValue',\\n\",\n       \" 'spearmanCorr',\\n\",\n       \" 'pearsonCorr']\"\n      ]\n     },\n     \"execution_count\": 5,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"query.queryable\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Let's say we only want to know the variables of `modelset`, `method`, `property`, `descriptor`, `meanAbsError`, `meanSquareError`, `pValue`, and `pearsonCorr`. Execute the query as follow:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>modelset</th>\\n\",\n       \"      <th>method</th>\\n\",\n       \"      <th>property</th>\\n\",\n       \"      <th>descriptor</th>\\n\",\n       \"      <th>meanAbsError</th>\\n\",\n       \"      <th>meanSquareError</th>\\n\",\n       \"      <th>pValue</th>\\n\",\n       \"      <th>pearsonCorr</th>\\n\",\n       \"      <th>id</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.422960</td>\\n\",\n       \"      <td>0.418109</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.631021</td>\\n\",\n       \"      <td>2335</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.545381</td>\\n\",\n       \"      <td>1.641444</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.578646</td>\\n\",\n       \"      <td>2338</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.708027</td>\\n\",\n       \"      <td>3.087893</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.439089</td>\\n\",\n       \"      <td>2339</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.585778</td>\\n\",\n       \"      <td>2.238217</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.531137</td>\\n\",\n       \"      <td>2341</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.542811</td>\\n\",\n       \"      <td>2.174997</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.558526</td>\\n\",\n       \"      <td>2342</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3595</td>\\n\",\n       \"      <td>Polymer Genome Dataset</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>organic.polymer.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.082331</td>\\n\",\n       \"      <td>0.019165</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.824684</td>\\n\",\n       \"      <td>31191</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3596</td>\\n\",\n       \"      <td>Polymer Genome Dataset</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>organic.polymer.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.094522</td>\\n\",\n       \"      <td>0.023909</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.667404</td>\\n\",\n       \"      <td>31192</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3597</td>\\n\",\n       \"      <td>Polymer Genome Dataset</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>organic.polymer.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.128509</td>\\n\",\n       \"      <td>0.039972</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.680136</td>\\n\",\n       \"      <td>31193</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3598</td>\\n\",\n       \"      <td>Polymer Genome Dataset</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>organic.polymer.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.096644</td>\\n\",\n       \"      <td>0.025381</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.704920</td>\\n\",\n       \"      <td>31194</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3599</td>\\n\",\n       \"      <td>Polymer Genome Dataset</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>organic.polymer.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.122035</td>\\n\",\n       \"      <td>0.040172</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.679644</td>\\n\",\n       \"      <td>31195</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>3600 rows × 9 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                             modelset  \\\\\\n\",\n       \"0     Stable inorganic compounds in materials project   \\n\",\n       \"1     Stable inorganic compounds in materials project   \\n\",\n       \"2     Stable inorganic compounds in materials project   \\n\",\n       \"3     Stable inorganic compounds in materials project   \\n\",\n       \"4     Stable inorganic compounds in materials project   \\n\",\n       \"...                                               ...   \\n\",\n       \"3595                           Polymer Genome Dataset   \\n\",\n       \"3596                           Polymer Genome Dataset   \\n\",\n       \"3597                           Polymer Genome Dataset   \\n\",\n       \"3598                           Polymer Genome Dataset   \\n\",\n       \"3599                           Polymer Genome Dataset   \\n\",\n       \"\\n\",\n       \"                         method                            property  \\\\\\n\",\n       \"0     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"1     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"2     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"3     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"4     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"...                         ...                                 ...   \\n\",\n       \"3595  pytorch.nn.neural_network    organic.polymer.refractive_index   \\n\",\n       \"3596  pytorch.nn.neural_network    organic.polymer.refractive_index   \\n\",\n       \"3597  pytorch.nn.neural_network    organic.polymer.refractive_index   \\n\",\n       \"3598  pytorch.nn.neural_network    organic.polymer.refractive_index   \\n\",\n       \"3599  pytorch.nn.neural_network    organic.polymer.refractive_index   \\n\",\n       \"\\n\",\n       \"                descriptor  meanAbsError  meanSquareError pValue  pearsonCorr  \\\\\\n\",\n       \"0     xenonpy.compositions      0.422960         0.418109   None     0.631021   \\n\",\n       \"1     xenonpy.compositions      0.545381         1.641444   None     0.578646   \\n\",\n       \"2     xenonpy.compositions      0.708027         3.087893   None     0.439089   \\n\",\n       \"3     xenonpy.compositions      0.585778         2.238217   None     0.531137   \\n\",\n       \"4     xenonpy.compositions      0.542811         2.174997   None     0.558526   \\n\",\n       \"...                    ...           ...              ...    ...          ...   \\n\",\n       \"3595  xenonpy.compositions      0.082331         0.019165   None     0.824684   \\n\",\n       \"3596  xenonpy.compositions      0.094522         0.023909   None     0.667404   \\n\",\n       \"3597  xenonpy.compositions      0.128509         0.039972   None     0.680136   \\n\",\n       \"3598  xenonpy.compositions      0.096644         0.025381   None     0.704920   \\n\",\n       \"3599  xenonpy.compositions      0.122035         0.040172   None     0.679644   \\n\",\n       \"\\n\",\n       \"         id  \\n\",\n       \"0      2335  \\n\",\n       \"1      2338  \\n\",\n       \"2      2339  \\n\",\n       \"3      2341  \\n\",\n       \"4      2342  \\n\",\n       \"...     ...  \\n\",\n       \"3595  31191  \\n\",\n       \"3596  31192  \\n\",\n       \"3597  31193  \\n\",\n       \"3598  31194  \\n\",\n       \"3599  31195  \\n\",\n       \"\\n\",\n       \"[3600 rows x 9 columns]\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"query(\\n\",\n    \"    'modelset',\\n\",\n    \"    'method',\\n\",\n    \"    'property',\\n\",\n    \"    'descriptor',\\n\",\n    \"    'meanAbsError',  \\n\",\n    \"    'meanSquareError',\\n\",\n    \"    'pValue',\\n\",\n    \"    'pearsonCorr' \\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"If everything goes right, you will get a pandas DataFrame in return.\\n\",\n    \"You can see that 3600 models matched the keyword and these models are contained in two sets of models.\\n\",\n    \"Note that all variables in column `pValue` are `None`. This is not a querying error, all variables are `None` indeed, because they were not recorded during training.\\n\",\n    \"\\n\",\n    \"You can also retrieve the last querying result from the query object via the `results` property.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>modelset</th>\\n\",\n       \"      <th>method</th>\\n\",\n       \"      <th>property</th>\\n\",\n       \"      <th>descriptor</th>\\n\",\n       \"      <th>meanAbsError</th>\\n\",\n       \"      <th>meanSquareError</th>\\n\",\n       \"      <th>pValue</th>\\n\",\n       \"      <th>pearsonCorr</th>\\n\",\n       \"      <th>id</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.422960</td>\\n\",\n       \"      <td>0.418109</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.631021</td>\\n\",\n       \"      <td>2335</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.545381</td>\\n\",\n       \"      <td>1.641444</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.578646</td>\\n\",\n       \"      <td>2338</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.708027</td>\\n\",\n       \"      <td>3.087893</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.439089</td>\\n\",\n       \"      <td>2339</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                          modelset                     method  \\\\\\n\",\n       \"0  Stable inorganic compounds in materials project  pytorch.nn.neural_network   \\n\",\n       \"1  Stable inorganic compounds in materials project  pytorch.nn.neural_network   \\n\",\n       \"2  Stable inorganic compounds in materials project  pytorch.nn.neural_network   \\n\",\n       \"\\n\",\n       \"                             property            descriptor  meanAbsError  \\\\\\n\",\n       \"0  inorganic.crystal.refractive_index  xenonpy.compositions      0.422960   \\n\",\n       \"1  inorganic.crystal.refractive_index  xenonpy.compositions      0.545381   \\n\",\n       \"2  inorganic.crystal.refractive_index  xenonpy.compositions      0.708027   \\n\",\n       \"\\n\",\n       \"   meanSquareError pValue  pearsonCorr    id  \\n\",\n       \"0         0.418109   None     0.631021  2335  \\n\",\n       \"1         1.641444   None     0.578646  2338  \\n\",\n       \"2         3.087893   None     0.439089  2339  \"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"query.results.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Querying with `mdl` is simple but not efficient enough. In most cases, we may know exactly what we want.\\n\",\n    \"\\n\",\n    \"Let's say we want to retrieve some models that were trained in the inorganic modelset and can predict the property of refractive index.\\n\",\n    \"In this case, we need to feed the parameter `modelset_has` with **inorganic** and the `property_has` with **refractive**, respectively.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th>transferred</th>\\n\",\n       \"      <th>succeed</th>\\n\",\n       \"      <th>isRegression</th>\\n\",\n       \"      <th>deprecated</th>\\n\",\n       \"      <th>modelset</th>\\n\",\n       \"      <th>method</th>\\n\",\n       \"      <th>property</th>\\n\",\n       \"      <th>descriptor</th>\\n\",\n       \"      <th>lang</th>\\n\",\n       \"      <th>meanAbsError</th>\\n\",\n       \"      <th>maxAbsError</th>\\n\",\n       \"      <th>meanSquareError</th>\\n\",\n       \"      <th>rootMeanSquareError</th>\\n\",\n       \"      <th>r2</th>\\n\",\n       \"      <th>pValue</th>\\n\",\n       \"      <th>spearmanCorr</th>\\n\",\n       \"      <th>pearsonCorr</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>2335</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.422960</td>\\n\",\n       \"      <td>1.782320</td>\\n\",\n       \"      <td>0.418109</td>\\n\",\n       \"      <td>0.646613</td>\\n\",\n       \"      <td>0.226642</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.805147</td>\\n\",\n       \"      <td>0.631021</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>2338</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.545381</td>\\n\",\n       \"      <td>8.948927</td>\\n\",\n       \"      <td>1.641444</td>\\n\",\n       \"      <td>1.281188</td>\\n\",\n       \"      <td>0.330978</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.808188</td>\\n\",\n       \"      <td>0.578646</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>2339</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.708027</td>\\n\",\n       \"      <td>10.142218</td>\\n\",\n       \"      <td>3.087893</td>\\n\",\n       \"      <td>1.757240</td>\\n\",\n       \"      <td>0.173911</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.839800</td>\\n\",\n       \"      <td>0.439089</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>2341</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.585778</td>\\n\",\n       \"      <td>11.835847</td>\\n\",\n       \"      <td>2.238217</td>\\n\",\n       \"      <td>1.496067</td>\\n\",\n       \"      <td>0.241867</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.690957</td>\\n\",\n       \"      <td>0.531137</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>2342</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.542811</td>\\n\",\n       \"      <td>11.045835</td>\\n\",\n       \"      <td>2.174997</td>\\n\",\n       \"      <td>1.474787</td>\\n\",\n       \"      <td>0.275737</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.886405</td>\\n\",\n       \"      <td>0.558526</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2395</td>\\n\",\n       \"      <td>4863</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>All inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.429642</td>\\n\",\n       \"      <td>2.204849</td>\\n\",\n       \"      <td>0.434043</td>\\n\",\n       \"      <td>0.658819</td>\\n\",\n       \"      <td>0.441885</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.808280</td>\\n\",\n       \"      <td>0.712245</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2396</td>\\n\",\n       \"      <td>4865</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>All inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.569579</td>\\n\",\n       \"      <td>7.622173</td>\\n\",\n       \"      <td>1.656191</td>\\n\",\n       \"      <td>1.286931</td>\\n\",\n       \"      <td>0.215002</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.829544</td>\\n\",\n       \"      <td>0.475225</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2397</td>\\n\",\n       \"      <td>4867</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>All inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.436152</td>\\n\",\n       \"      <td>2.635126</td>\\n\",\n       \"      <td>0.559099</td>\\n\",\n       \"      <td>0.747729</td>\\n\",\n       \"      <td>0.426260</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.834226</td>\\n\",\n       \"      <td>0.655400</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2398</td>\\n\",\n       \"      <td>4868</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>All inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.383506</td>\\n\",\n       \"      <td>2.473203</td>\\n\",\n       \"      <td>0.339653</td>\\n\",\n       \"      <td>0.582797</td>\\n\",\n       \"      <td>0.599966</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.840016</td>\\n\",\n       \"      <td>0.798442</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2399</td>\\n\",\n       \"      <td>4871</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>All inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.394862</td>\\n\",\n       \"      <td>2.490165</td>\\n\",\n       \"      <td>0.397413</td>\\n\",\n       \"      <td>0.630407</td>\\n\",\n       \"      <td>0.674495</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.800693</td>\\n\",\n       \"      <td>0.839631</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>2400 rows × 18 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"        id  transferred  succeed  isRegression  deprecated  \\\\\\n\",\n       \"0     2335        False     True          True       False   \\n\",\n       \"1     2338        False     True          True       False   \\n\",\n       \"2     2339        False     True          True       False   \\n\",\n       \"3     2341        False     True          True       False   \\n\",\n       \"4     2342        False     True          True       False   \\n\",\n       \"...    ...          ...      ...           ...         ...   \\n\",\n       \"2395  4863        False     True          True       False   \\n\",\n       \"2396  4865        False     True          True       False   \\n\",\n       \"2397  4867        False     True          True       False   \\n\",\n       \"2398  4868        False     True          True       False   \\n\",\n       \"2399  4871        False     True          True       False   \\n\",\n       \"\\n\",\n       \"                                             modelset  \\\\\\n\",\n       \"0     Stable inorganic compounds in materials project   \\n\",\n       \"1     Stable inorganic compounds in materials project   \\n\",\n       \"2     Stable inorganic compounds in materials project   \\n\",\n       \"3     Stable inorganic compounds in materials project   \\n\",\n       \"4     Stable inorganic compounds in materials project   \\n\",\n       \"...                                               ...   \\n\",\n       \"2395     All inorganic compounds in materials project   \\n\",\n       \"2396     All inorganic compounds in materials project   \\n\",\n       \"2397     All inorganic compounds in materials project   \\n\",\n       \"2398     All inorganic compounds in materials project   \\n\",\n       \"2399     All inorganic compounds in materials project   \\n\",\n       \"\\n\",\n       \"                         method                            property  \\\\\\n\",\n       \"0     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"1     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"2     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"3     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"4     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"...                         ...                                 ...   \\n\",\n       \"2395  pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"2396  pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"2397  pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"2398  pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"2399  pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"\\n\",\n       \"                descriptor    lang  meanAbsError  maxAbsError  \\\\\\n\",\n       \"0     xenonpy.compositions  python      0.422960     1.782320   \\n\",\n       \"1     xenonpy.compositions  python      0.545381     8.948927   \\n\",\n       \"2     xenonpy.compositions  python      0.708027    10.142218   \\n\",\n       \"3     xenonpy.compositions  python      0.585778    11.835847   \\n\",\n       \"4     xenonpy.compositions  python      0.542811    11.045835   \\n\",\n       \"...                    ...     ...           ...          ...   \\n\",\n       \"2395  xenonpy.compositions  python      0.429642     2.204849   \\n\",\n       \"2396  xenonpy.compositions  python      0.569579     7.622173   \\n\",\n       \"2397  xenonpy.compositions  python      0.436152     2.635126   \\n\",\n       \"2398  xenonpy.compositions  python      0.383506     2.473203   \\n\",\n       \"2399  xenonpy.compositions  python      0.394862     2.490165   \\n\",\n       \"\\n\",\n       \"      meanSquareError  rootMeanSquareError        r2 pValue  spearmanCorr  \\\\\\n\",\n       \"0            0.418109             0.646613  0.226642   None      0.805147   \\n\",\n       \"1            1.641444             1.281188  0.330978   None      0.808188   \\n\",\n       \"2            3.087893             1.757240  0.173911   None      0.839800   \\n\",\n       \"3            2.238217             1.496067  0.241867   None      0.690957   \\n\",\n       \"4            2.174997             1.474787  0.275737   None      0.886405   \\n\",\n       \"...               ...                  ...       ...    ...           ...   \\n\",\n       \"2395         0.434043             0.658819  0.441885   None      0.808280   \\n\",\n       \"2396         1.656191             1.286931  0.215002   None      0.829544   \\n\",\n       \"2397         0.559099             0.747729  0.426260   None      0.834226   \\n\",\n       \"2398         0.339653             0.582797  0.599966   None      0.840016   \\n\",\n       \"2399         0.397413             0.630407  0.674495   None      0.800693   \\n\",\n       \"\\n\",\n       \"      pearsonCorr  \\n\",\n       \"0        0.631021  \\n\",\n       \"1        0.578646  \\n\",\n       \"2        0.439089  \\n\",\n       \"3        0.531137  \\n\",\n       \"4        0.558526  \\n\",\n       \"...           ...  \\n\",\n       \"2395     0.712245  \\n\",\n       \"2396     0.475225  \\n\",\n       \"2397     0.655400  \\n\",\n       \"2398     0.798442  \\n\",\n       \"2399     0.839631  \\n\",\n       \"\\n\",\n       \"[2400 rows x 18 columns]\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# --- query data\\n\",\n    \"\\n\",\n    \"mdl(modelset_has='inorganic', property_has='refractive')()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"You can see that only the models that belong to **All inorganic compounds in materials project** modelset were returned. If you call a query object without parameters, all queryable variables will be returned.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### list/get_detail variables\\n\",\n    \"\\n\",\n    \"You can check some meta info of the database. To do so, we use `mdl.list_*` and `mdl.get_*_detail` methods. For example, `mdl.list_properties` will return:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>name</th>\\n\",\n       \"      <th>fullName</th>\\n\",\n       \"      <th>symbol</th>\\n\",\n       \"      <th>unit</th>\\n\",\n       \"      <th>describe</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>inorganic.crystal.efermi</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>inorganic.crystal.band_gap</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>inorganic.crystal.density</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>inorganic.crystal.total_magnetization</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>inorganic.crystal.dielectric_const_elec</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>6</td>\\n\",\n       \"      <td>inorganic.crystal.dielectric_const_total</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>7</td>\\n\",\n       \"      <td>inorganic.crystal.final_energy_per_atom</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>8</td>\\n\",\n       \"      <td>inorganic.crystal.formation_energy_per_atom</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>9</td>\\n\",\n       \"      <td>inorganic.crystal.volume</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>10</td>\\n\",\n       \"      <td>organic.polymer.band_gap_pbe</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>11</td>\\n\",\n       \"      <td>organic.polymer.ionization_energy</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>12</td>\\n\",\n       \"      <td>organic.polymer.electron_affinity</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>13</td>\\n\",\n       \"      <td>organic.polymer.atomization_energy</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>14</td>\\n\",\n       \"      <td>organic.polymer.cohesive_energy</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>15</td>\\n\",\n       \"      <td>organic.polymer.refractive_index</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>16</td>\\n\",\n       \"      <td>organic.polymer.density</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>17</td>\\n\",\n       \"      <td>organic.polymer.dielectric_constant</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>18</td>\\n\",\n       \"      <td>organic.polymer.volume_of_cell</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>19</td>\\n\",\n       \"      <td>organic.polymer.dielectric_constant_electronic</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>20</td>\\n\",\n       \"      <td>organic.polymer.dielectric_constant_ionic</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>21</td>\\n\",\n       \"      <td>organic.polymer.band_gap_hse06</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>22</td>\\n\",\n       \"      <td>organic.small_molecule</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                              name fullName symbol unit  \\\\\\n\",\n       \"0                         inorganic.crystal.efermi                        \\n\",\n       \"1               inorganic.crystal.refractive_index                        \\n\",\n       \"2                       inorganic.crystal.band_gap                        \\n\",\n       \"3                        inorganic.crystal.density                        \\n\",\n       \"4            inorganic.crystal.total_magnetization                        \\n\",\n       \"5          inorganic.crystal.dielectric_const_elec                        \\n\",\n       \"6         inorganic.crystal.dielectric_const_total                        \\n\",\n       \"7          inorganic.crystal.final_energy_per_atom                        \\n\",\n       \"8      inorganic.crystal.formation_energy_per_atom                        \\n\",\n       \"9                         inorganic.crystal.volume                        \\n\",\n       \"10                    organic.polymer.band_gap_pbe                        \\n\",\n       \"11               organic.polymer.ionization_energy                        \\n\",\n       \"12               organic.polymer.electron_affinity                        \\n\",\n       \"13              organic.polymer.atomization_energy                        \\n\",\n       \"14                 organic.polymer.cohesive_energy                        \\n\",\n       \"15                organic.polymer.refractive_index                        \\n\",\n       \"16                         organic.polymer.density                        \\n\",\n       \"17             organic.polymer.dielectric_constant                        \\n\",\n       \"18                  organic.polymer.volume_of_cell                        \\n\",\n       \"19  organic.polymer.dielectric_constant_electronic                        \\n\",\n       \"20       organic.polymer.dielectric_constant_ionic                        \\n\",\n       \"21                  organic.polymer.band_gap_hse06                        \\n\",\n       \"22                          organic.small_molecule                        \\n\",\n       \"\\n\",\n       \"   describe  \\n\",\n       \"0            \\n\",\n       \"1            \\n\",\n       \"2            \\n\",\n       \"3            \\n\",\n       \"4            \\n\",\n       \"5            \\n\",\n       \"6            \\n\",\n       \"7            \\n\",\n       \"8            \\n\",\n       \"9            \\n\",\n       \"10           \\n\",\n       \"11           \\n\",\n       \"12           \\n\",\n       \"13           \\n\",\n       \"14           \\n\",\n       \"15           \\n\",\n       \"16           \\n\",\n       \"17           \\n\",\n       \"18           \\n\",\n       \"19           \\n\",\n       \"20           \\n\",\n       \"21           \\n\",\n       \"22           \"\n      ]\n     },\n     \"execution_count\": 9,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"mdl.list_properties()()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"and `mdl.get_property_detail` will return the property information including how many models are relevant to this property:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"{'name': 'inorganic.crystal.efermi',\\n\",\n       \" 'fullName': '',\\n\",\n       \" 'symbol': '',\\n\",\n       \" 'unit': '',\\n\",\n       \" 'describe': '',\\n\",\n       \" 'count': 2481}\"\n      ]\n     },\n     \"execution_count\": 10,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"mdl.get_property_detail('inorganic.crystal.efermi')()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"These querying statements are very useful when you want to know what is in the database.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### get training info/env and download url by model ID\\n\",\n    \"\\n\",\n    \"Note that all models have their unique IDs. We can use model ID to get more information about a particular model. The following shows how to get training info/env by model ID.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>total_iters</th>\\n\",\n       \"      <th>i_epoch</th>\\n\",\n       \"      <th>i_batch</th>\\n\",\n       \"      <th>train_mse_loss</th>\\n\",\n       \"      <th>val_mae</th>\\n\",\n       \"      <th>val_mse</th>\\n\",\n       \"      <th>val_rmse</th>\\n\",\n       \"      <th>val_r2</th>\\n\",\n       \"      <th>val_pearsonr</th>\\n\",\n       \"      <th>val_spearmanr</th>\\n\",\n       \"      <th>val_p_value</th>\\n\",\n       \"      <th>val_max_ae</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>694</td>\\n\",\n       \"      <td>694</td>\\n\",\n       \"      <td>22</td>\\n\",\n       \"      <td>23</td>\\n\",\n       \"      <td>2.060905</td>\\n\",\n       \"      <td>1.098812</td>\\n\",\n       \"      <td>2.106717</td>\\n\",\n       \"      <td>1.451453</td>\\n\",\n       \"      <td>0.701376</td>\\n\",\n       \"      <td>0.850455</td>\\n\",\n       \"      <td>0.847006</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>12.112278</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>695</td>\\n\",\n       \"      <td>695</td>\\n\",\n       \"      <td>22</td>\\n\",\n       \"      <td>24</td>\\n\",\n       \"      <td>2.049812</td>\\n\",\n       \"      <td>1.162004</td>\\n\",\n       \"      <td>2.331702</td>\\n\",\n       \"      <td>1.526991</td>\\n\",\n       \"      <td>0.669485</td>\\n\",\n       \"      <td>0.844444</td>\\n\",\n       \"      <td>0.839916</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>12.192457</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>696</td>\\n\",\n       \"      <td>696</td>\\n\",\n       \"      <td>22</td>\\n\",\n       \"      <td>25</td>\\n\",\n       \"      <td>2.156136</td>\\n\",\n       \"      <td>1.092442</td>\\n\",\n       \"      <td>2.166551</td>\\n\",\n       \"      <td>1.471921</td>\\n\",\n       \"      <td>0.692895</td>\\n\",\n       \"      <td>0.837554</td>\\n\",\n       \"      <td>0.828305</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>12.244514</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"     total_iters  i_epoch  i_batch  train_mse_loss   val_mae   val_mse  \\\\\\n\",\n       \"694          694       22       23        2.060905  1.098812  2.106717   \\n\",\n       \"695          695       22       24        2.049812  1.162004  2.331702   \\n\",\n       \"696          696       22       25        2.156136  1.092442  2.166551   \\n\",\n       \"\\n\",\n       \"     val_rmse    val_r2  val_pearsonr  val_spearmanr  val_p_value  val_max_ae  \\n\",\n       \"694  1.451453  0.701376      0.850455       0.847006          0.0   12.112278  \\n\",\n       \"695  1.526991  0.669485      0.844444       0.839916          0.0   12.192457  \\n\",\n       \"696  1.471921  0.692895      0.837554       0.828305          0.0   12.244514  \"\n      ]\n     },\n     \"execution_count\": 11,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<matplotlib.axes._subplots.AxesSubplot at 0x1a1f5ff050>\"\n      ]\n     },\n     \"execution_count\": 11,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 1000x500 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"info = mdl.get_training_info(model_id=1234)()\\n\",\n    \"_, ax = plt.subplots(figsize=(10, 5), dpi=100)\\n\",\n    \"info.tail(3)\\n\",\n    \"info.plot(y=['train_mse_loss', 'val_mse'], ax=ax)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"{'python': '3.7.4 (default, Aug 13 2019, 20:35:49) \\\\n[GCC 7.3.0]',\\n\",\n       \" 'system': '#60-Ubuntu SMP Tue Jul 2 18:22:20 UTC 2019',\\n\",\n       \" 'numpy': '1.16.4',\\n\",\n       \" 'torch': '1.1.0',\\n\",\n       \" 'xenonpy': '0.4.0.beta4',\\n\",\n       \" 'device': 'cuda:2',\\n\",\n       \" 'start': '2019/09/17 20:55:56',\\n\",\n       \" 'finish': '2019/09/17 21:03:04',\\n\",\n       \" 'time_elapsed': '5 days, 15:33:23.552799',\\n\",\n       \" 'author': 'Chang Liu',\\n\",\n       \" 'email': 'liu.chang@ism.ac.jp',\\n\",\n       \" 'dataset': 'materials project'}\"\n      ]\n     },\n     \"execution_count\": 12,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"mdl.get_training_env(model_id=1234)()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {\n    \"nbsphinx\": \"hidden\"\n   },\n   \"source\": [\n    \"Getting download url can be done in a similar way.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 13,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th>etag</th>\\n\",\n       \"      <th>url</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>1234</td>\\n\",\n       \"      <td>9274418b5ee2026ea8714b7edc7d012e-1</td>\\n\",\n       \"      <td>http://xenon.ism.ac.jp/mdl/inorganic.crystal.e...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>5678</td>\\n\",\n       \"      <td>c5a962fce76a773b208cc59631999a25-1</td>\\n\",\n       \"      <td>http://xenon.ism.ac.jp/mdl/inorganic.crystal.b...</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"     id                                etag  \\\\\\n\",\n       \"0  1234  9274418b5ee2026ea8714b7edc7d012e-1   \\n\",\n       \"1  5678  c5a962fce76a773b208cc59631999a25-1   \\n\",\n       \"\\n\",\n       \"                                                 url  \\n\",\n       \"0  http://xenon.ism.ac.jp/mdl/inorganic.crystal.e...  \\n\",\n       \"1  http://xenon.ism.ac.jp/mdl/inorganic.crystal.b...  \"\n      ]\n     },\n     \"execution_count\": 13,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"mdl.get_model_urls(1234, 5678)()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"The output dataframe contains the column named `url`. If you only want to get the string of `url`, just use `queryable` specification.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>url</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>http://xenon.ism.ac.jp/mdl/inorganic.crystal.e...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>http://xenon.ism.ac.jp/mdl/inorganic.crystal.b...</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                                 url\\n\",\n       \"0  http://xenon.ism.ac.jp/mdl/inorganic.crystal.e...\\n\",\n       \"1  http://xenon.ism.ac.jp/mdl/inorganic.crystal.b...\"\n      ]\n     },\n     \"execution_count\": 14,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"mdl.get_model_urls(1234, 5678)('url')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Also, if you don't want to get a dataframe or you want to control the output type yourself, you can set `return_json` to `True`.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[{'url': 'http://xenon.ism.ac.jp/mdl/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3.tar.gz'},\\n\",\n       \" {'url': 'http://xenon.ism.ac.jp/mdl/inorganic.crystal.band_gap/xenonpy.compositions/pytorch.nn.neural_network/290-168-132-111-1-$Nbe3TKMYM.tar.gz'}]\"\n      ]\n     },\n     \"execution_count\": 15,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"mdl.get_model_urls(1234, 5678)('url', return_json=True)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"You can use these urls to download models yourself, but we suggest you to use `mdl.pull`.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"\\u001b[0;31mSignature:\\u001b[0m\\n\",\n       \"\\u001b[0mmdl\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mpull\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m*\\u001b[0m\\u001b[0mmodel_ids\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mpandas\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mcore\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mseries\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mSeries\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mpandas\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mcore\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mframe\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mDataFrame\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0msave_to\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mstr\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;34m'.'\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m \\u001b[0;34m->\\u001b[0m \\u001b[0mpandas\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mcore\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mframe\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mDataFrame\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n       \"\\u001b[0;31mDocstring:\\u001b[0m\\n\",\n       \"Download model(s) from XenonPy.MDL server.\\n\",\n       \"\\n\",\n       \"Parameters\\n\",\n       \"----------\\n\",\n       \"model_ids\\n\",\n       \"    Model ids.\\n\",\n       \"    It can be given by a dataframe.\\n\",\n       \"    In this case, the column with name ``id`` will be used.\\n\",\n       \"save_to\\n\",\n       \"    Path to save models.\\n\",\n       \"\\n\",\n       \"Returns\\n\",\n       \"-------\\n\",\n       \"\\u001b[0;31mFile:\\u001b[0m      ~/projects/XenonPy/xenonpy/mdl/mdl.py\\n\",\n       \"\\u001b[0;31mType:\\u001b[0m      method\\n\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"mdl.pull?\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 17,\n   \"metadata\": {\n    \"nbsphinx\": \"hidden\"\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"100%|██████████| 2/2 [00:01<00:00,  1.49it/s]\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th>model</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>1234</td>\\n\",\n       \"      <td>/Users/liuchang/Google 云端硬盘/postdoctoral/tutor...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>5678</td>\\n\",\n       \"      <td>/Users/liuchang/Google 云端硬盘/postdoctoral/tutor...</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"     id                                              model\\n\",\n       \"0  1234  /Users/liuchang/Google 云端硬盘/postdoctoral/tutor...\\n\",\n       \"1  5678  /Users/liuchang/Google 云端硬盘/postdoctoral/tutor...\"\n      ]\n     },\n     \"execution_count\": 17,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"ret = mdl.pull(1234, 5678)\\n\",\n    \"ret\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"The column named `model` contains the local path of the downloaded models.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### upload model\\n\",\n    \"\\n\",\n    \"Uploading models is not yet availiable until we open the public registration. If you try to upload models, you will get ***'operation needs a logged in user and the corresponded api_key'*** error.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"ename\": \"ValueError\",\n     \"evalue\": \"operation needs a logged in user and the corresponded api_key\",\n     \"output_type\": \"error\",\n     \"traceback\": [\n      \"\\u001b[0;31m---------------------------------------------------------------------------\\u001b[0m\",\n      \"\\u001b[0;31mValueError\\u001b[0m                                Traceback (most recent call last)\",\n      \"\\u001b[0;32m<ipython-input-18-f862c734ea61>\\u001b[0m in \\u001b[0;36m<module>\\u001b[0;34m\\u001b[0m\\n\\u001b[1;32m     13\\u001b[0m     \\u001b[0mtraining_info\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0mdict\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0ma\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;36m1\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mb\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;36m2\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m     14\\u001b[0m     \\u001b[0msupplementary\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0mdict\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mtrue\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0;36m1\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;36m2\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;36m3\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;36m4\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mpred\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0;36m1\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;36m2\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;36m2\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;36m4\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0;32m---> 15\\u001b[0;31m )(file='data')\\n\\u001b[0m\",\n      \"\\u001b[0;32m~/projects/XenonPy/xenonpy/mdl/base.py\\u001b[0m in \\u001b[0;36m__call__\\u001b[0;34m(self, file, return_json, *querying_vars)\\u001b[0m\\n\\u001b[1;32m    104\\u001b[0m         \\u001b[0mret\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mret\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mjson\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    105\\u001b[0m         \\u001b[0;32mif\\u001b[0m \\u001b[0;34m'errors'\\u001b[0m \\u001b[0;32min\\u001b[0m \\u001b[0mret\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0;32m--> 106\\u001b[0;31m             \\u001b[0;32mraise\\u001b[0m \\u001b[0mValueError\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mret\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0;34m'errors'\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0;36m0\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0;34m'message'\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0m\\u001b[1;32m    107\\u001b[0m         \\u001b[0mquery_name\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m__class__\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m__name__\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    108\\u001b[0m         \\u001b[0mret\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mret\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0;34m'data'\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mquery_name\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0;36m0\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mlower\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m)\\u001b[0m \\u001b[0;34m+\\u001b[0m \\u001b[0mquery_name\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0;36m1\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n      \"\\u001b[0;31mValueError\\u001b[0m: operation needs a logged in user and the corresponded api_key\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"mdl.upload_model(\\n\",\n    \"    modelset_id=2, \\n\",\n    \"    describe=dict(\\n\",\n    \"        property='test2',\\n\",\n    \"        descriptor='test2',\\n\",\n    \"        method='test',\\n\",\n    \"        lang='test',\\n\",\n    \"        deprecated=True,\\n\",\n    \"        isRegression=True,\\n\",\n    \"        meanAbsError=1.11,\\n\",\n    \"        pearsonCorr=0.85,\\n\",\n    \"    ),\\n\",\n    \"    training_info=dict(a=1, b=2),\\n\",\n    \"    supplementary=dict(true=[1,2,3,4], pred=[1,2,2,4])\\n\",\n    \")(file='data')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### retrieve model\\n\",\n    \"\\n\",\n    \"You can use `xenonpy.model.training.Checker` to load the downloaded models. For example, to load the model with id **1234**:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 19,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.model.training import Checker\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 20,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/usr/local/miniconda3/envs/xepy37/lib/python3.7/site-packages/ipykernel_launcher.py:1: FutureWarning: `item` has been deprecated and will be removed in a future version\\n\",\n      \"  \\\"\\\"\\\"Entry point for launching an IPython kernel.\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<Checker> includes:\\n\",\n       \"\\\"final_state\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/final_state.pth.s\\n\",\n       \"\\\"training_info\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/training_info.pd.xz\\n\",\n       \"\\\"model_class\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/model_class.pkl.z\\n\",\n       \"\\\"init_state\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/init_state.pth.s\\n\",\n       \"\\\"model\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/model.pth.m\\n\",\n       \"\\\"splitter\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/splitter.pkl.z\\n\",\n       \"\\\"model_structure\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/model_structure.pkl.z\\n\",\n       \"\\\"describe\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/describe.pkl.z\\n\",\n       \"\\\"data_indices\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/data_indices.pkl.z\\n\",\n       \"\\\"model_params\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/model_params.pkl.z\"\n      ]\n     },\n     \"execution_count\": 20,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"checker = Checker(ret[ret.id == 1234].model.item())\\n\",\n    \"checker\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Note that the random string *$WEnkZ6e3* in the file name is a magic number to guarantee that each model has a unique name.\\n\",\n    \"\\n\",\n    \"To load a model into python, call `checker.model` property.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 21,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=180, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(180, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=180, out_features=177, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(177, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_2): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=177, out_features=162, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(162, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=162, out_features=46, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(46, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_4): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=46, out_features=32, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(32, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=32, out_features=1, bias=True)\\n\",\n       \")\"\n      ]\n     },\n     \"execution_count\": 21,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"checker.model\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Use `checker.checkpoints` to list checkpoints.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 22,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<Checker> includes:\\n\",\n       \"\\\"mse_3\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mse_3.pth.s\\n\",\n       \"\\\"mse_1\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mse_1.pth.s\\n\",\n       \"\\\"mae_2\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mae_2.pth.s\\n\",\n       \"\\\"r2_5\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/r2_5.pth.s\\n\",\n       \"\\\"mse_5\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mse_5.pth.s\\n\",\n       \"\\\"r2_1\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/r2_1.pth.s\\n\",\n       \"\\\"mae_4\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mae_4.pth.s\\n\",\n       \"\\\"r2_3\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/r2_3.pth.s\\n\",\n       \"\\\"mae_3\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mae_3.pth.s\\n\",\n       \"\\\"r2_4\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/r2_4.pth.s\\n\",\n       \"\\\"mse_2\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mse_2.pth.s\\n\",\n       \"\\\"mae_1\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mae_1.pth.s\\n\",\n       \"\\\"mae_5\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mae_5.pth.s\\n\",\n       \"\\\"r2_2\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/r2_2.pth.s\\n\",\n       \"\\\"mse_4\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mse_4.pth.s\\n\",\n       \"\\\"pearsonr_5\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/pearsonr_5.pth.s\\n\",\n       \"\\\"pearsonr_1\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/pearsonr_1.pth.s\\n\",\n       \"\\\"pearsonr_3\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/pearsonr_3.pth.s\\n\",\n       \"\\\"pearsonr_4\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/pearsonr_4.pth.s\\n\",\n       \"\\\"pearsonr_2\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/pearsonr_2.pth.s\"\n      ]\n     },\n     \"execution_count\": 22,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"checker.checkpoints\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"and `checker.checkpoints[<checkpoint name>]` to load information from a specific checkpoint.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 23,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"OrderedDict([('id', 'mse_3'),\\n\",\n       \"             ('iterations', 670),\\n\",\n       \"             ('model_state',\\n\",\n       \"              OrderedDict([('layer_0.linear.weight',\\n\",\n       \"                            tensor([[-2.7413,  2.2444, -0.6347,  ..., -0.4093,  1.7569,  0.3331],\\n\",\n       \"                                    [-3.4710,  3.1230, -1.5549,  ...,  0.7105,  0.1097, -0.5686],\\n\",\n       \"                                    [-1.0452, -0.0773, -1.8657,  ..., -2.4842, -2.4716,  0.0133],\\n\",\n       \"                                    ...,\\n\",\n       \"                                    [-2.8635,  2.0810, -1.8306,  ..., -0.7263,  0.1966,  0.6690],\\n\",\n       \"                                    [-1.4911,  0.3969, -2.4763,  ..., -2.1228, -2.3481, -0.2280],\\n\",\n       \"                                    [-4.5753,  3.2695, -3.0195,  ..., -1.5596, -0.2794,  0.9001]])),\\n\",\n       \"                           ('layer_0.linear.bias',\\n\",\n       \"                            tensor([ 1.8674e-01,  1.2594e+00,  6.3830e-03,  8.8717e-03, -2.2134e-02,\\n\",\n       \"                                     1.0698e+00,  1.3682e-01, -6.5420e-01, -2.2904e-02,  2.5760e-01,\\n\",\n       \"                                     1.3303e-02, -7.1474e-01,  5.6013e-02,  2.4740e-01,  3.6663e-02,\\n\",\n       \"                                    -4.6552e-02,  3.5276e-01,  4.7275e-01,  7.8601e-02,  1.7847e-01,\\n\",\n       \"                                     4.1219e-01,  1.1378e-01, -1.5997e-01, -4.0251e-02, -5.4254e-02,\\n\",\n       \"                                     4.1694e-01,  1.6805e-01,  6.6942e-01,  4.1481e-02,  1.0744e-01,\\n\",\n       \"                                     5.8623e-01,  9.0315e-01,  1.2878e+00,  5.1398e-01,  2.8303e-01,\\n\",\n       \"                                     9.7579e-02,  1.7690e-01,  1.6764e-01, -2.3814e-01,  2.6120e-01,\\n\",\n       \"                                     5.1376e-01,  2.8208e-01,  3.4689e-02,  4.8316e-02,  2.2929e-01,\\n\",\n       \"                                     4.6762e-02, -4.5354e-02,  1.7217e-03,  4.2179e-03,  5.0165e-01,\\n\",\n       \"                                     2.7844e-01, -1.4434e-01, -8.3940e-01,  9.0725e-02, -1.2393e-01,\\n\",\n       \"                                    -7.6476e-02, -5.0103e-02,  2.0573e-02, -4.6605e-01,  4.2584e-04,\\n\",\n       \"                                    -1.2431e-03,  1.7416e-02,  1.9315e-01, -8.2507e-02,  5.6182e-02,\\n\",\n       \"                                    -1.5245e-01, -1.6458e-02,  1.2927e-01, -1.0788e-01, -6.2298e-02,\\n\",\n       \"                                     3.5064e-01,  3.9070e-01,  1.4682e-02,  7.9495e-02,  3.9572e-01,\\n\",\n       \"                                     3.2543e-02,  3.1317e-02,  2.2445e-01, -5.1132e-01,  9.8786e-01,\\n\",\n       \"                                     8.7456e-02, -2.9127e-02,  2.8352e-01, -5.4528e-02, -3.7345e-02,\\n\",\n       \"                                     1.5468e-01,  8.5600e-01, -4.6745e-03,  4.3161e-01,  2.3493e-02,\\n\",\n       \"                                     2.1969e-01, -4.6591e-02,  4.1278e-02, -3.0714e-01,  3.9996e-02,\\n\",\n       \"                                     3.8986e-02,  5.1559e-02,  6.2200e-02,  5.3427e-02,  1.5805e-01,\\n\",\n       \"                                     4.4626e-01,  1.8942e-01,  3.0517e-02,  8.5060e-03,  2.3743e-01,\\n\",\n       \"                                     4.2354e-02,  1.4166e-02,  1.6934e-01,  4.8535e-01, -4.7722e-02,\\n\",\n       \"                                     4.4760e-01,  2.1024e-01, -3.7049e-02, -3.6345e-01,  1.1755e-01,\\n\",\n       \"                                    -8.5783e-02, -1.7177e-01, -2.4121e-02,  1.7525e-01,  5.6658e-01,\\n\",\n       \"                                    -1.1588e-01, -6.6737e-02,  1.9659e-01, -5.5139e-02,  2.2182e-01,\\n\",\n       \"                                     4.2854e-01,  9.8938e-01,  5.8801e-01,  3.2118e-01,  3.4174e-01,\\n\",\n       \"                                    -6.3782e-02,  2.4754e-01, -6.7626e-02,  2.2835e-01,  9.6599e-03,\\n\",\n       \"                                     1.3314e+00,  6.5396e-03,  2.8145e-02, -1.1071e+00,  5.0319e-01,\\n\",\n       \"                                     1.7117e-01,  5.1287e-01, -8.9040e-02, -1.4837e-01, -1.2847e-02,\\n\",\n       \"                                     3.7948e-01, -9.2569e-04, -3.3302e-03,  2.0668e-01,  3.3091e-04,\\n\",\n       \"                                     1.2669e-01, -6.7318e-02,  4.1707e-01, -5.6539e-02,  1.6370e-02,\\n\",\n       \"                                    -6.2774e-02,  2.8587e-02, -3.5977e-02,  3.8779e-01, -4.2425e-02,\\n\",\n       \"                                     7.1804e-03,  3.5864e-01,  1.6941e+00,  9.8432e-01,  2.3810e-02,\\n\",\n       \"                                     9.4629e-02,  1.3361e-01, -9.8752e-01, -2.1931e-02,  1.8669e+00,\\n\",\n       \"                                     4.0989e-02, -3.4537e-02,  3.9911e-01,  2.6089e-02,  2.7814e-02,\\n\",\n       \"                                     4.0855e-01,  4.8781e-02,  1.2521e+00,  1.6534e-03,  1.0430e+00])),\\n\",\n       \"                           ('layer_0.normalizer.weight',\\n\",\n       \"                            tensor([ 0.5104,  0.5791,  0.3863,  0.5147,  0.4768,  0.6566,  0.8734,  0.6645,\\n\",\n       \"                                     0.2071,  0.5819,  0.5087,  0.8138, -0.0092,  0.3608,  0.7038,  0.4413,\\n\",\n       \"                                     0.4833,  0.4180,  0.3368,  0.8463,  0.9392,  0.6924,  0.9296,  0.3491,\\n\",\n       \"                                     0.8069,  0.6619,  0.4793,  0.8459,  0.3441,  0.4590,  0.2950,  0.7371,\\n\",\n       \"                                     1.0435,  0.5632,  0.8104,  0.3961,  0.8829,  0.4403,  0.6482,  0.1659,\\n\",\n       \"                                     0.8168,  0.6445,  0.2457,  0.5658,  0.6175,  0.5902,  0.4836,  0.4961,\\n\",\n       \"                                     0.8358,  0.6547,  1.0532,  0.2442,  0.7796,  0.6544,  0.4556,  0.7625,\\n\",\n       \"                                     0.5656,  0.6227,  0.4305,  0.6411,  0.0154, -0.0189,  0.8002,  0.7829,\\n\",\n       \"                                    -0.3495,  0.5086,  0.8894,  0.7311,  0.2554,  0.6265,  0.2209,  0.7341,\\n\",\n       \"                                     0.3376,  0.6506,  0.5737,  0.6515,  0.3971,  0.6820,  0.2186,  0.9487,\\n\",\n       \"                                     0.6806,  0.0019,  0.4236, -0.0177,  0.5589,  0.8026,  1.0764,  0.4386,\\n\",\n       \"                                     0.9103,  0.5176,  0.5547,  0.7266,  0.5542,  0.8855,  0.5962,  0.2110,\\n\",\n       \"                                     0.5829,  0.4500,  0.4146,  0.7857,  0.3986,  0.2688,  0.6396,  0.1095,\\n\",\n       \"                                     0.3394, -0.0042,  0.8618,  0.8215,  0.6750,  0.5059,  0.6141,  0.3358,\\n\",\n       \"                                     0.3855,  0.3334,  0.8454,  0.6317,  1.0210,  0.8109,  0.2147,  0.5198,\\n\",\n       \"                                     0.0800,  0.7424,  0.2460,  0.8399,  0.8723,  0.5189,  0.7770,  1.0010,\\n\",\n       \"                                     0.2620,  0.8994,  0.6743,  0.4495,  0.7078,  0.3760,  0.3484,  0.6523,\\n\",\n       \"                                     0.6504, -0.3513,  0.3846,  0.3045,  0.6785,  0.9537,  0.3647,  0.3666,\\n\",\n       \"                                     0.5900,  0.8485,  0.4425,  0.5642,  0.6941,  0.4128,  1.0695,  0.4578,\\n\",\n       \"                                     0.3176,  0.6530,  0.7904,  0.7789,  0.7717,  0.3916,  0.4966,  0.3998,\\n\",\n       \"                                     0.4341,  0.5248,  0.5466,  0.6723,  0.2765,  0.4336,  0.2317,  0.4454,\\n\",\n       \"                                     0.1769,  1.0672,  0.7877,  0.2391,  0.3636,  0.2797,  0.3982,  0.2906,\\n\",\n       \"                                     0.4604,  0.6001,  0.2475,  0.8258])),\\n\",\n       \"                           ('layer_0.normalizer.bias',\\n\",\n       \"                            tensor([-0.1962, -0.0443, -0.2787, -0.0800, -0.4596, -0.1044, -0.1859,  0.1330,\\n\",\n       \"                                     0.0798, -0.1919, -0.1971, -0.2456, -0.0873, -0.3314, -0.1081, -0.3820,\\n\",\n       \"                                    -0.2372, -0.1259,  0.2093, -0.1731, -0.0683, -0.2343, -0.2495, -0.1465,\\n\",\n       \"                                    -0.4826,  0.0515, -0.1702, -0.4426,  0.0551, -0.0520, -0.1534, -0.0523,\\n\",\n       \"                                    -0.0462, -0.1940,  0.1447, -0.0863, -0.1390, -0.1070,  0.0972,  0.0248,\\n\",\n       \"                                    -0.4015, -0.2151, -0.1441,  0.0269, -0.0848, -0.1441, -0.3927, -0.4433,\\n\",\n       \"                                    -0.4028, -0.0485, -0.1162,  0.1694, -0.1743, -0.2001, -0.3018, -0.5739,\\n\",\n       \"                                     0.0599, -0.2187,  0.1332, -0.1887, -0.1445, -0.0679, -0.1672, -0.1422,\\n\",\n       \"                                    -0.3938,  0.2836,  0.0275,  0.1534,  0.1156, -0.2450, -0.1039, -0.1504,\\n\",\n       \"                                    -0.3893, -0.1549, -0.2389, -0.4126, -0.4205, -0.0470,  0.2166, -0.0405,\\n\",\n       \"                                    -0.1702, -0.0595,  0.0128, -0.1007,  0.0836,  0.0919,  0.1459, -0.2995,\\n\",\n       \"                                    -0.1740, -0.2381, -0.2750, -0.1821, -0.2118, -0.2194, -0.1279, -0.3674,\\n\",\n       \"                                     0.0930, -0.0964,  0.0278, -0.3024,  0.0738, -0.0719, -0.4944, -0.2141,\\n\",\n       \"                                    -0.1037, -0.0635, -0.3994, -0.1838, -0.1033, -0.1383, -0.0299,  0.0610,\\n\",\n       \"                                    -0.1442,  0.0914, -0.1958, -0.2726, -0.2943, -0.1576,  0.1738,  0.0190,\\n\",\n       \"                                     0.1938, -0.0365,  0.1417, -0.1462, -0.3113,  0.0542, -0.1261, -0.2680,\\n\",\n       \"                                    -0.0870, -0.1613, -0.4117, -0.0631, -0.3835, -0.0387, -0.0150,  0.1125,\\n\",\n       \"                                    -0.2066, -0.4758,  0.3709, -0.0092, -0.2423, -0.5018,  0.0690,  0.0409,\\n\",\n       \"                                    -0.1773, -0.2771,  0.0214, -0.3464, -0.0111, -0.1203, -0.2852, -0.3696,\\n\",\n       \"                                    -0.0033, -0.0295, -0.1827, -0.1715, -0.3728,  0.0648,  0.0032, -0.2143,\\n\",\n       \"                                    -0.0813, -0.1441,  0.3781, -0.2067, -0.0122,  0.0530, -0.0088,  0.1383,\\n\",\n       \"                                     0.0448,  0.1684, -0.1943, -0.0861,  0.1116, -0.2284, -0.0506, -0.0290,\\n\",\n       \"                                    -0.1651,  0.2154, -0.3402, -0.0656])),\\n\",\n       \"                           ('layer_0.normalizer.running_mean',\\n\",\n       \"                            tensor([-1.2129e+06, -2.8267e+05, -1.8897e+05,  3.0676e+05, -3.7214e+05,\\n\",\n       \"                                     2.1488e+05, -1.3920e+06,  3.9283e+05, -2.0499e+05, -7.2328e+05,\\n\",\n       \"                                     1.0294e+06, -9.7885e+04, -8.7283e+05,  1.5692e+06,  2.8840e+05,\\n\",\n       \"                                    -3.6137e+05, -3.1562e+05, -2.7778e+05, -3.0051e+05, -1.0735e+06,\\n\",\n       \"                                    -1.8500e+05, -2.7350e+05, -2.9411e+05,  1.1861e+06, -3.7914e+05,\\n\",\n       \"                                    -1.7805e+05, -1.1815e+06, -3.5938e+05,  6.2004e+05, -7.6983e+05,\\n\",\n       \"                                     3.5743e+05, -2.6413e+05, -1.4222e+05, -1.5700e+05, -5.4438e+03,\\n\",\n       \"                                    -1.1430e+06,  1.6714e+05, -1.1032e+06, -7.9594e+03,  2.0885e+05,\\n\",\n       \"                                    -5.4440e+05, -6.4795e+05,  5.7594e+05, -2.3447e+05, -7.4664e+05,\\n\",\n       \"                                     7.4651e+05, -7.0639e+05, -6.9201e+05, -2.2437e+05,  1.0384e+05,\\n\",\n       \"                                    -8.4054e+05,  6.0643e+05,  3.3801e+03, -3.2249e+05, -4.2711e+05,\\n\",\n       \"                                    -1.1043e+05, -2.9549e+05,  1.0297e+06, -1.1715e+05,  1.2755e+05,\\n\",\n       \"                                     7.3041e+05,  8.6747e+05, -1.7673e+05, -7.2339e+04, -2.5830e+06,\\n\",\n       \"                                    -6.3911e+04,  4.1610e+05,  1.6950e+05, -3.6926e+03, -4.5985e+05,\\n\",\n       \"                                     2.6051e+05, -7.6430e+05,  1.2047e+06, -4.1445e+05, -6.9484e+05,\\n\",\n       \"                                    -9.0072e+05,  1.4235e+06,  3.1018e+05, -2.3230e+04, -2.7941e+05,\\n\",\n       \"                                    -3.4013e+04,  3.8489e+04, -6.6028e+05,  3.6265e+05,  1.4223e+06,\\n\",\n       \"                                    -1.5331e+05, -1.1047e+05, -8.2704e+05, -1.0100e+05, -5.6225e+04,\\n\",\n       \"                                    -1.0116e+06,  5.0040e+05, -1.1833e+06, -7.6824e+04,  1.3367e+06,\\n\",\n       \"                                     2.0518e+06,  5.9261e+05, -3.5650e+05,  1.5055e+05, -2.9754e+05,\\n\",\n       \"                                    -2.4155e+05, -1.4951e+06,  6.6657e+05,  6.3000e+04,  6.2948e+05,\\n\",\n       \"                                    -4.8433e+05, -4.4355e+05, -1.0859e+05, -2.5631e+05,  4.4660e+05,\\n\",\n       \"                                    -2.3497e+05,  2.0366e+04,  1.9218e+05, -2.9244e+05, -3.2546e+05,\\n\",\n       \"                                    -5.2584e+05, -7.7124e+04,  3.7811e+05, -2.3890e+05, -1.7612e+05,\\n\",\n       \"                                    -5.7066e+05,  4.8926e+04, -2.7278e+05,  9.3206e+05, -2.6738e+05,\\n\",\n       \"                                    -2.6777e+05, -1.4219e+05, -4.1422e+05,  7.3759e+05, -6.6235e+05,\\n\",\n       \"                                     1.0376e+06, -2.9605e+05,  4.3901e+04, -1.4490e+04, -1.0147e+05,\\n\",\n       \"                                    -2.4937e+04, -5.1361e+04, -1.7725e+06,  2.0963e+04,  4.7144e+05,\\n\",\n       \"                                    -9.8638e+05, -4.2225e+05,  7.8836e+04,  7.1857e+04, -4.3700e+02,\\n\",\n       \"                                    -5.0268e+05,  3.0922e+05, -1.3685e+05, -7.1152e+05, -3.0388e+05,\\n\",\n       \"                                    -1.3728e+05,  8.0650e+05, -2.1282e+05,  6.7584e+05, -2.0512e+05,\\n\",\n       \"                                    -1.5178e+05, -6.8367e+05,  4.0433e+05, -4.0490e+05,  8.2663e+05,\\n\",\n       \"                                    -2.6122e+05, -7.7120e+05, -7.1985e+03, -3.4465e+05,  2.2040e+05,\\n\",\n       \"                                    -4.8741e+05, -7.2770e+05, -2.9618e+04,  4.6617e+05, -7.7764e+04,\\n\",\n       \"                                    -3.3846e+05,  1.5320e+05, -6.9355e+04, -3.7454e+05, -1.2436e+05,\\n\",\n       \"                                     8.0627e+05, -1.0685e+06, -1.6126e+05,  1.0174e+06, -2.2256e+05])),\\n\",\n       \"                           ('layer_0.normalizer.running_var',\\n\",\n       \"                            tensor([2.8734e+12, 1.0846e+11, 4.1629e+12, 5.6613e+11, 3.7155e+12, 1.1434e+11,\\n\",\n       \"                                    1.0065e+13, 3.2466e+11, 8.6504e+11, 7.8276e+11, 1.9834e+12, 4.1663e+10,\\n\",\n       \"                                    2.1929e+12, 1.0113e+13, 1.1670e+12, 1.8113e+12, 2.1190e+11, 2.4035e+11,\\n\",\n       \"                                    6.7875e+11, 5.2790e+12, 1.9742e+11, 6.1139e+11, 4.2168e+11, 1.4509e+12,\\n\",\n       \"                                    1.2841e+12, 1.9323e+11, 1.2050e+12, 1.4804e+11, 1.1170e+12, 3.4495e+12,\\n\",\n       \"                                    5.7916e+11, 2.9058e+11, 1.1115e+11, 5.0044e+10, 2.3590e+10, 1.5554e+12,\\n\",\n       \"                                    7.8063e+10, 3.3613e+12, 3.5218e+11, 1.0136e+11, 3.4714e+11, 1.1977e+12,\\n\",\n       \"                                    3.1281e+11, 2.4396e+11, 2.0106e+12, 7.3961e+11, 2.3273e+12, 2.2810e+12,\\n\",\n       \"                                    6.7913e+11, 3.6403e+10, 4.0202e+12, 1.7135e+12, 1.9181e+10, 4.7717e+11,\\n\",\n       \"                                    4.6237e+11, 6.4884e+11, 7.9020e+11, 6.5175e+11, 1.7558e+11, 1.2140e+12,\\n\",\n       \"                                    9.9990e+11, 1.6053e+12, 5.6199e+11, 8.0261e+10, 4.2270e+12, 4.0093e+10,\\n\",\n       \"                                    1.7091e+11, 7.3718e+10, 3.5427e+10, 1.1907e+12, 1.8352e+11, 2.5166e+12,\\n\",\n       \"                                    1.9807e+12, 1.3332e+12, 3.2925e+11, 1.2385e+12, 1.7686e+12, 3.5039e+11,\\n\",\n       \"                                    8.4248e+10, 4.6650e+11, 1.1013e+11, 3.3575e+12, 5.2994e+11, 6.9099e+11,\\n\",\n       \"                                    1.7189e+12, 1.5802e+11, 8.0225e+10, 2.2410e+12, 6.5210e+10, 9.8536e+10,\\n\",\n       \"                                    1.2242e+12, 1.6420e+12, 2.2263e+12, 9.3532e+10, 3.2451e+12, 4.3126e+12,\\n\",\n       \"                                    1.7026e+12, 1.4901e+12, 1.2225e+11, 2.8621e+11, 2.1624e+11, 2.8024e+12,\\n\",\n       \"                                    3.3252e+11, 3.8007e+11, 2.4959e+12, 4.3159e+11, 1.9044e+12, 9.7064e+10,\\n\",\n       \"                                    1.3783e+11, 2.6057e+11, 5.2831e+11, 2.9040e+11, 1.8034e+12, 4.2261e+11,\\n\",\n       \"                                    5.9581e+11, 2.3897e+12, 2.9622e+10, 2.5139e+11, 3.8814e+11, 2.0273e+11,\\n\",\n       \"                                    1.0169e+12, 6.6312e+11, 3.9934e+11, 1.5518e+12, 1.6059e+11, 2.0429e+11,\\n\",\n       \"                                    7.3254e+10, 3.9329e+11, 5.0400e+12, 2.5599e+12, 1.3495e+12, 3.0244e+11,\\n\",\n       \"                                    4.8005e+10, 5.1000e+10, 3.0274e+11, 2.7907e+10, 5.9713e+11, 2.4381e+12,\\n\",\n       \"                                    9.9436e+09, 8.3648e+11, 3.2557e+12, 4.1370e+11, 5.8659e+10, 3.1412e+10,\\n\",\n       \"                                    8.6003e+10, 9.1349e+11, 2.6566e+11, 6.0918e+11, 2.4435e+12, 4.5672e+11,\\n\",\n       \"                                    8.8486e+10, 6.6567e+11, 1.4290e+11, 4.8815e+12, 4.3067e+11, 1.8827e+11,\\n\",\n       \"                                    4.8827e+12, 2.1159e+11, 9.6153e+11, 1.4606e+12, 4.5325e+11, 4.5757e+11,\\n\",\n       \"                                    1.0029e+10, 1.4708e+11, 6.1296e+11, 6.3223e+11, 4.4463e+11, 1.1444e+10,\\n\",\n       \"                                    1.1462e+12, 5.3529e+10, 6.8962e+11, 5.9348e+11, 2.1475e+11, 4.1514e+11,\\n\",\n       \"                                    1.0480e+12, 1.2999e+12, 3.4963e+12, 8.6104e+10, 9.5250e+11, 2.2460e+11])),\\n\",\n       \"                           ('layer_0.normalizer.num_batches_tracked',\\n\",\n       \"                            tensor(670)),\\n\",\n       \"                           ('layer_1.linear.weight',\\n\",\n       \"                            tensor([[-0.3181, -0.0467,  0.1220,  ..., -0.3037,  0.0751, -0.5011],\\n\",\n       \"                                    [ 0.1769,  0.0907,  0.6257,  ...,  0.0173,  0.1333,  0.4019],\\n\",\n       \"                                    [ 0.0093, -0.2277, -0.0919,  ..., -0.2902, -0.1235, -0.2536],\\n\",\n       \"                                    ...,\\n\",\n       \"                                    [ 0.4216,  0.1898, -0.1141,  ...,  0.1129, -0.0119,  0.1866],\\n\",\n       \"                                    [-0.0128,  0.0372, -0.3504,  ..., -0.1693, -0.2387, -0.3789],\\n\",\n       \"                                    [-0.1159,  0.1799,  0.2841,  ...,  0.1712,  0.0442, -0.0150]])),\\n\",\n       \"                           ('layer_1.linear.bias',\\n\",\n       \"                            tensor([ 0.4272, -0.9039,  0.1904, -0.2160,  0.4101, -0.1103,  0.4987,  0.2544,\\n\",\n       \"                                     0.1019,  0.0742,  0.6390,  0.0388,  0.0458, -0.6708, -0.0971, -0.1611,\\n\",\n       \"                                     0.0943, -1.1995, -0.0920,  0.3232,  0.2385, -0.1232,  0.1995, -0.4173,\\n\",\n       \"                                    -0.0610,  0.0653,  0.1749,  0.0328,  0.4999, -0.2223,  0.0241,  0.7735,\\n\",\n       \"                                     0.1619,  0.0434, -0.1896, -0.3395,  0.0403,  0.3407, -0.3957,  0.1370,\\n\",\n       \"                                     0.5093,  0.2799,  0.0323, -0.0116,  0.2430,  0.2210, -0.0503,  0.0454,\\n\",\n       \"                                    -0.0668,  0.4199,  0.1628, -1.0166,  0.4744, -0.3817,  0.1295, -0.2087,\\n\",\n       \"                                     0.5544,  0.1096,  0.0749, -1.4452,  0.0350, -0.5916,  0.0621,  0.0480,\\n\",\n       \"                                     0.1958,  0.4391,  0.5505,  0.2575,  0.0325,  0.3898,  0.3660,  0.2256,\\n\",\n       \"                                     0.4397, -0.0505,  0.3201,  0.3299,  0.1729,  0.2120,  0.3927,  0.1806,\\n\",\n       \"                                    -0.0665,  0.2679,  0.0802,  0.2549,  0.3061, -0.5109,  0.2203, -0.1280,\\n\",\n       \"                                     0.2171, -0.0454,  0.3390,  0.1481,  0.8642,  0.1444, -0.2233, -0.2728,\\n\",\n       \"                                    -0.1692,  0.2542,  0.1593, -0.4494, -0.0971,  0.2951, -0.1180,  0.2975,\\n\",\n       \"                                     0.1763, -0.0883,  0.1806,  0.2068, -0.1619,  0.0125, -0.0279,  0.3348,\\n\",\n       \"                                     0.5742, -0.1454,  0.1260,  0.6690,  0.3612, -0.0294,  0.1213,  0.4081,\\n\",\n       \"                                    -0.2089,  0.2120,  0.2244,  0.4372, -0.0115,  0.7784,  0.1602, -0.0813,\\n\",\n       \"                                    -0.0493, -0.1658,  0.3238,  0.2760, -0.0432, -0.0420, -0.0659,  0.3089,\\n\",\n       \"                                     0.0190,  0.5050,  0.6044, -0.2358,  0.2355, -0.2841,  0.0530,  0.4726,\\n\",\n       \"                                     0.5186,  0.2180,  0.2962, -0.1304,  0.1614,  0.3440,  0.2312,  0.6344,\\n\",\n       \"                                    -0.3127, -0.2918,  0.2700, -0.1242,  0.6109, -0.1531,  0.0123,  0.2946,\\n\",\n       \"                                     0.5476,  0.4071,  0.2653, -0.4429,  0.1034, -0.0617,  0.2970, -0.0116,\\n\",\n       \"                                    -0.3955, -0.0198,  0.6731,  0.4815,  0.4867,  0.0948,  0.2610,  0.1566,\\n\",\n       \"                                     0.0384])),\\n\",\n       \"                           ('layer_1.normalizer.weight',\\n\",\n       \"                            tensor([ 0.7724,  0.5528,  0.7754,  0.7696,  0.2109,  0.4952,  0.7166,  0.2034,\\n\",\n       \"                                     0.3974,  0.4473,  0.4182,  0.4169,  0.8112,  0.9732,  0.6718,  0.6471,\\n\",\n       \"                                     0.6182,  0.2758,  0.2656,  0.7420,  0.8008,  0.0970,  0.3573,  0.7887,\\n\",\n       \"                                     0.4323,  0.7148,  0.8219,  0.4425,  0.2586,  0.8524,  0.7631, -0.1480,\\n\",\n       \"                                     0.6211,  0.7283,  0.7019,  0.6664,  0.7825,  0.2799,  0.7122,  0.8373,\\n\",\n       \"                                     0.3143,  0.5367,  0.8127,  0.5353,  0.6630,  0.7752,  0.2445,  0.5905,\\n\",\n       \"                                     0.2394,  0.8094,  0.6661,  0.2757,  0.3573,  0.5570,  0.7235,  0.6305,\\n\",\n       \"                                     0.8710,  0.4753,  0.3409,  0.3190,  0.6961,  0.5270,  0.6013,  0.0756,\\n\",\n       \"                                     0.7081,  0.5906,  0.1810,  0.7286, -0.0057,  0.8344,  0.4059,  0.1987,\\n\",\n       \"                                     0.7828,  0.7904,  0.8655,  0.4139,  0.7423,  0.3984,  0.7705,  0.7546,\\n\",\n       \"                                     0.5489,  0.4179,  0.3176,  0.3345,  0.7589,  0.3580,  0.1110,  0.5608,\\n\",\n       \"                                     0.5362,  0.0094,  0.2373,  0.3635,  0.7349,  0.5421,  0.7940,  0.8640,\\n\",\n       \"                                     0.0260,  0.2689,  0.6665,  0.7943,  0.5509,  0.4087,  0.7532,  0.4168,\\n\",\n       \"                                     0.9124,  0.0878,  0.5972,  0.6600,  0.7846,  0.3822,  0.3208,  0.6693,\\n\",\n       \"                                     0.4407,  0.4913,  0.7079,  0.6869,  0.3143,  0.7635,  0.7462,  0.1772,\\n\",\n       \"                                     0.7289,  0.0499,  0.5132,  0.6099,  0.8893,  0.6448,  0.4385,  0.7160,\\n\",\n       \"                                     0.6739,  0.3674,  0.1015,  0.7265, -0.0049,  0.0171,  0.0766,  0.4091,\\n\",\n       \"                                     0.7618,  0.4541,  0.7765,  0.9321,  0.0817,  0.4848,  0.0063,  0.3314,\\n\",\n       \"                                     0.5573,  0.7276,  0.2552,  0.6275,  0.5366, -0.2922,  0.0431,  0.6978,\\n\",\n       \"                                     0.8908,  0.6146,  0.4422,  0.6265,  0.3998,  0.7618,  0.8459,  0.6532,\\n\",\n       \"                                     0.6608,  0.6642,  0.3993,  0.7534,  0.8476,  0.7271,  0.7883,  0.5109,\\n\",\n       \"                                     0.6671,  0.3548, -0.3233,  0.6174,  0.6103,  0.8735,  0.1984,  0.8545,\\n\",\n       \"                                     0.5555])),\\n\",\n       \"                           ('layer_1.normalizer.bias',\\n\",\n       \"                            tensor([-4.8687e-01, -6.5793e-01, -1.7362e-01, -3.0067e-01,  1.2581e-01,\\n\",\n       \"                                    -2.2906e-01,  3.5819e-02,  5.0886e-02, -2.7870e-01, -1.7128e-01,\\n\",\n       \"                                     3.4052e-02, -4.9039e-01, -5.6463e-01, -5.9361e-01, -4.0186e-01,\\n\",\n       \"                                    -9.2585e-02, -2.2541e-01, -7.4718e-01, -5.0870e-03, -2.2716e-01,\\n\",\n       \"                                    -2.0561e-02, -2.0329e-01, -8.4164e-02, -5.8757e-01, -1.9374e-01,\\n\",\n       \"                                    -3.3367e-01, -2.2995e-01, -1.2856e-01,  9.6702e-03, -3.8536e-01,\\n\",\n       \"                                    -3.0355e-01, -4.4498e-01, -1.8743e-01, -1.9710e-01, -5.3411e-01,\\n\",\n       \"                                    -6.9149e-01, -4.0172e-01,  2.4301e-02, -3.2459e-01, -9.3060e-02,\\n\",\n       \"                                    -3.6030e-02, -1.1579e-01, -2.8658e-01, -2.4621e-01, -6.2366e-03,\\n\",\n       \"                                    -1.2196e-01, -1.3555e-01,  7.4362e-03, -2.5930e-01, -4.3468e-01,\\n\",\n       \"                                    -1.5946e-01, -6.9949e-01, -4.7001e-02, -4.9838e-01, -2.6839e-01,\\n\",\n       \"                                    -5.2396e-01, -1.5207e-01, -1.1730e-01, -2.5288e-01, -6.5695e-01,\\n\",\n       \"                                    -1.9395e-01, -4.9804e-01, -1.9134e-01, -1.1425e-01, -2.8989e-01,\\n\",\n       \"                                    -2.3164e-01,  1.1617e-01, -2.5385e-01, -9.5173e-02, -3.7006e-01,\\n\",\n       \"                                     5.5945e-02,  2.0635e-01, -3.8304e-01, -4.2781e-01, -1.5396e-01,\\n\",\n       \"                                    -1.1947e-01, -2.7199e-02, -2.8786e-01, -2.0645e-01, -1.5319e-01,\\n\",\n       \"                                    -3.2556e-01, -1.1684e-01,  5.5866e-03, -3.4911e-01, -2.7693e-01,\\n\",\n       \"                                    -3.4123e-01,  2.0492e-01, -3.2356e-01, -1.6581e-01, -9.6886e-02,\\n\",\n       \"                                     1.1676e-01, -1.9239e-01, -1.6082e-01, -7.9961e-02, -5.2100e-01,\\n\",\n       \"                                    -5.1340e-01, -1.8974e-01,  2.5859e-02, -1.3545e-01, -3.9954e-01,\\n\",\n       \"                                    -7.8536e-02, -2.9645e-01, -4.8769e-01,  2.5232e-02,  1.1020e-01,\\n\",\n       \"                                    -1.9782e-01, -1.7286e-01, -2.3323e-01, -4.2869e-01,  3.8918e-02,\\n\",\n       \"                                    -1.7333e-01, -3.7193e-01,  1.0578e-01, -9.5304e-02, -4.1619e-01,\\n\",\n       \"                                    -2.1274e-02,  2.9453e-01, -2.1269e-01, -1.0715e-01,  1.2427e-01,\\n\",\n       \"                                    -1.1718e-01,  1.1451e-01, -4.9374e-04, -1.6703e-01, -1.1600e-01,\\n\",\n       \"                                     7.1238e-02,  2.0437e-02, -1.5701e-01, -8.9630e-02, -2.1474e-01,\\n\",\n       \"                                     1.4690e-01,  1.7623e-02, -5.2768e-02, -8.0910e-02,  1.1171e-01,\\n\",\n       \"                                     9.7640e-02, -4.6893e-01,  2.8726e-02, -2.6173e-01, -6.1300e-01,\\n\",\n       \"                                     1.5880e-01, -2.9128e-01, -4.5310e-02,  1.8769e-01, -3.5182e-01,\\n\",\n       \"                                    -3.7850e-01,  1.3322e-03, -1.7291e-01, -1.0457e-01, -4.1100e-01,\\n\",\n       \"                                    -9.8451e-02, -4.5245e-01, -7.2406e-01, -4.2713e-01,  3.8897e-02,\\n\",\n       \"                                    -3.4561e-01, -4.0211e-02, -3.8704e-01, -3.5258e-01, -2.0678e-01,\\n\",\n       \"                                    -3.6973e-01, -3.4208e-01, -3.0089e-02, -4.2235e-01, -1.4618e-01,\\n\",\n       \"                                     1.4217e-01, -1.5353e-01, -1.9246e-01, -5.5187e-01, -9.1403e-02,\\n\",\n       \"                                    -4.0453e-01, -1.8983e-01, -1.1410e-01, -3.3431e-01,  1.1839e-01,\\n\",\n       \"                                    -1.3737e-01, -2.5578e-01])),\\n\",\n       \"                           ('layer_1.normalizer.running_mean',\\n\",\n       \"                            tensor([-1.0012,  0.9059, -0.5933,  1.2517, -0.1599, -0.2621, -0.5754, -0.7055,\\n\",\n       \"                                    -0.1043,  0.3594, -0.0773, -0.7850, -0.7410, -0.4356, -0.0951, -0.8019,\\n\",\n       \"                                     0.1038,  0.1979, -1.2412, -0.1483, -0.2528, -1.2501, -0.0598,  0.3535,\\n\",\n       \"                                    -0.0999, -0.4959, -0.0107, -1.2390, -0.0301, -0.1888,  0.5956, -0.5109,\\n\",\n       \"                                    -0.9230,  0.5715,  0.1734,  0.0887, -0.2923, -0.4678,  0.1751, -0.5447,\\n\",\n       \"                                    -1.0108,  0.0278, -0.5504,  0.2809, -0.8226, -0.3325, -0.2127, -0.6235,\\n\",\n       \"                                     0.2548,  0.5462,  0.0092,  0.2038, -0.6879, -0.1080, -1.1428,  0.1823,\\n\",\n       \"                                    -0.1586, -0.4211,  0.4230,  1.0469, -0.1016,  0.4202, -0.1107, -1.6935,\\n\",\n       \"                                    -0.0985, -0.3614, -0.2401, -0.4718,  0.2483, -0.3143,  0.4494,  0.2874,\\n\",\n       \"                                    -0.5771, -0.1627,  0.1163, -0.6621, -0.3129, -0.2038, -0.2718, -0.7657,\\n\",\n       \"                                     0.0480,  0.9996, -0.6919,  1.5673,  0.0111, -0.5343,  0.6665,  1.6854,\\n\",\n       \"                                    -0.9618,  0.1406, -1.0776,  0.3344, -0.9839, -0.1319,  0.0170,  1.1883,\\n\",\n       \"                                    -1.3508, -0.4064, -0.9850,  0.1428,  0.9735, -0.3728, -0.0558, -0.4150,\\n\",\n       \"                                     0.0863, -1.1260, -0.2841, -0.0181, -0.5096, -0.4574,  0.2621, -0.2732,\\n\",\n       \"                                    -0.3459,  0.3559, -0.1139, -0.2430,  0.4331, -0.7160,  0.1169,  0.2474,\\n\",\n       \"                                    -0.6933,  0.7129, -0.8441, -0.0880, -0.1472, -0.2216, -0.6946, -0.9052,\\n\",\n       \"                                    -1.0473,  0.4883, -0.7345, -0.5874, -0.1417, -0.5711,  0.1673, -1.0069,\\n\",\n       \"                                    -0.2246,  0.5413, -0.9195, -0.5592, -0.5670, -0.2906, -1.0233,  0.0110,\\n\",\n       \"                                    -0.4851,  0.3339, -1.1661, -1.1126,  0.0384,  0.0168, -1.2003, -0.5942,\\n\",\n       \"                                     0.7896,  0.4963, -0.3686,  0.1805,  0.1795, -0.1698,  0.3953, -0.3368,\\n\",\n       \"                                    -0.4614, -0.0705, -0.2032,  0.3827, -0.1626, -0.1555, -1.2359,  0.2446,\\n\",\n       \"                                    -0.8220,  0.3409,  0.4112, -0.0505, -0.7286,  0.9226, -0.3724, -0.6035,\\n\",\n       \"                                    -0.2093])),\\n\",\n       \"                           ('layer_1.normalizer.running_var',\\n\",\n       \"                            tensor([ 1.5784,  4.3603,  3.0406,  3.9843,  2.5842,  1.6847,  4.2242,  2.3038,\\n\",\n       \"                                     1.4713,  2.3048,  3.4151,  1.8586,  2.6211,  1.4248,  1.6324,  3.5756,\\n\",\n       \"                                     1.8121, 11.3280,  3.3998,  2.4089,  1.8012,  1.3024,  2.6088,  1.7034,\\n\",\n       \"                                     1.7349,  2.2189,  2.0389,  2.4620,  1.6277,  1.7833,  1.6252,  2.9811,\\n\",\n       \"                                     3.4582,  1.0297,  1.1774,  1.5030,  1.6943,  2.2126,  0.9261,  3.2761,\\n\",\n       \"                                     3.3161,  2.1361,  1.7398,  1.4311,  3.6328,  2.6587,  1.8304,  2.9714,\\n\",\n       \"                                     1.9231,  1.7223,  1.9149,  9.2152,  4.8232,  1.8995,  2.0808,  1.6926,\\n\",\n       \"                                     1.0224,  2.7655,  1.2581, 10.1292,  1.2400,  2.4070,  1.8323,  3.7722,\\n\",\n       \"                                     2.4576,  2.8575,  3.3780,  1.9544,  0.2371,  2.2880,  3.0949,  2.1179,\\n\",\n       \"                                     1.9815,  1.7560,  1.2390,  3.1567,  2.6115,  1.3628,  2.7039,  1.5545,\\n\",\n       \"                                     1.0431,  2.3704,  4.2586,  4.2653,  1.0075,  2.4698,  2.4783,  3.4799,\\n\",\n       \"                                     4.7091,  0.1635,  3.5400,  1.0513,  3.8962,  2.7156,  1.4790,  2.0708,\\n\",\n       \"                                     1.2599,  3.2595,  3.0823,  1.0620,  3.8206,  3.5075,  1.2568,  3.8073,\\n\",\n       \"                                     1.5245,  0.6714,  2.0583,  1.1045,  1.7741,  1.8926,  2.9702,  1.6884,\\n\",\n       \"                                     4.6135,  1.3068,  1.2621,  2.7422,  1.9513,  2.1740,  1.9496,  2.4949,\\n\",\n       \"                                     4.0215,  1.8097,  2.8780,  1.5046,  1.2563,  3.1307,  4.7151,  4.2565,\\n\",\n       \"                                     2.1220,  1.8459,  4.7927,  3.1600,  0.0777,  0.2535,  1.7539,  2.6288,\\n\",\n       \"                                     1.2955,  2.9272,  1.5976,  1.9883,  2.9310,  1.9140,  0.8124,  1.6121,\\n\",\n       \"                                     1.0627,  2.2470,  3.8162,  3.4301,  5.9179, 10.3987,  1.6794,  1.4560,\\n\",\n       \"                                     1.0918,  1.5822,  2.9202,  1.4964,  3.1723,  0.9711,  1.6405,  3.9672,\\n\",\n       \"                                     1.6582,  1.3467,  2.9507,  1.8645,  2.6762,  3.0827,  3.7867,  1.4285,\\n\",\n       \"                                     2.0862,  2.0662,  7.5074,  2.5092,  2.6214,  2.2816,  2.0605,  2.0044,\\n\",\n       \"                                     2.0017])),\\n\",\n       \"                           ('layer_1.normalizer.num_batches_tracked',\\n\",\n       \"                            tensor(670)),\\n\",\n       \"                           ('layer_2.linear.weight',\\n\",\n       \"                            tensor([[ 0.1494, -0.1234, -0.2821,  ..., -0.1532, -0.0732, -0.1128],\\n\",\n       \"                                    [-0.0551,  0.0989, -0.3374,  ..., -0.0806, -0.0468,  0.0616],\\n\",\n       \"                                    [-0.0130,  0.0661, -0.1006,  ...,  0.2441,  0.1385,  0.0855],\\n\",\n       \"                                    ...,\\n\",\n       \"                                    [ 0.1844, -0.2233, -0.3211,  ...,  0.0852, -0.2506,  0.1146],\\n\",\n       \"                                    [ 0.2989, -0.0142,  0.0532,  ...,  0.2498,  0.1741,  0.1107],\\n\",\n       \"                                    [ 0.0098,  0.3458,  0.2180,  ..., -0.1585,  0.2146,  0.1526]])),\\n\",\n       \"                           ('layer_2.linear.bias',\\n\",\n       \"                            tensor([ 3.0239e-01, -5.3302e-02,  2.2736e-04,  2.0087e-01, -3.8188e-02,\\n\",\n       \"                                    -1.3411e-01,  1.2893e-01, -2.1880e-02, -5.9000e-02, -5.4540e-02,\\n\",\n       \"                                     5.2248e-02,  1.0601e-01,  2.3720e-01,  1.8199e-01, -8.2406e-02,\\n\",\n       \"                                     2.6802e-01,  2.7499e-01,  1.5136e-01,  6.0337e-02,  5.2905e-02,\\n\",\n       \"                                     2.6242e-01,  5.0922e-01,  1.0646e-01,  6.9072e-02,  5.6843e-01,\\n\",\n       \"                                     7.4985e-02,  3.5433e-01,  2.1146e-01,  1.9029e-02, -2.7482e-02,\\n\",\n       \"                                     2.5046e-02, -1.1538e-01,  9.9619e-02,  2.5464e-01,  5.0537e-01,\\n\",\n       \"                                     4.9756e-01, -6.2948e-02,  1.4187e-01, -3.8272e-01,  1.1998e-01,\\n\",\n       \"                                     2.3396e-01,  8.7638e-01, -6.1409e-02, -1.7969e-01, -4.5910e-02,\\n\",\n       \"                                     2.2924e-01,  2.2706e-01,  3.2552e-01,  1.0975e-01,  6.2968e-02,\\n\",\n       \"                                    -6.4498e-02,  2.7169e-01,  2.5185e-01,  1.8035e-01,  3.2196e-01,\\n\",\n       \"                                     2.3540e-01, -2.2477e-01, -1.8710e-01,  1.4068e-01,  4.5910e-01,\\n\",\n       \"                                     1.6799e-01,  6.5608e-03,  1.2377e-01,  5.6258e-02, -7.8144e-01,\\n\",\n       \"                                     4.3098e-01,  5.6467e-01, -3.8760e-02, -1.3453e-01,  1.7881e-02,\\n\",\n       \"                                     4.1133e-01,  4.2046e-02,  5.0666e-01,  6.8481e-01,  4.9632e-01,\\n\",\n       \"                                     7.2266e-02,  8.6528e-02,  1.9726e-01,  2.0609e-01,  2.1501e-01,\\n\",\n       \"                                     1.3276e-01,  1.6760e-01,  2.7045e-01,  4.3999e-02,  3.6845e-01,\\n\",\n       \"                                     5.2264e-02,  7.5264e-01,  1.1433e-01,  8.4747e-02,  3.0166e-01,\\n\",\n       \"                                     1.9079e-01,  1.0732e-01,  1.6198e-01, -4.9254e-01,  3.7556e-01,\\n\",\n       \"                                     7.9555e-02,  4.4684e-02, -1.6131e-01, -8.8023e-03, -1.7224e-01,\\n\",\n       \"                                     8.8625e-02,  5.8451e-02, -6.2197e-03,  2.8570e-01,  3.5402e-01,\\n\",\n       \"                                     6.2331e-01,  1.1865e-01,  3.0338e-01,  1.5998e-01,  4.2997e-01,\\n\",\n       \"                                     1.6426e-01,  2.3096e-01,  3.6988e-01,  1.8134e-01,  2.1643e-01,\\n\",\n       \"                                     1.7414e-01,  1.7112e-01,  5.2216e-01,  2.0863e-01, -7.4228e-02,\\n\",\n       \"                                    -2.9927e-02,  3.0342e-01, -7.7274e-02,  9.7756e-02,  1.1052e-01,\\n\",\n       \"                                    -4.7219e-01,  6.3637e-01, -9.5980e-01,  9.8897e-02,  2.1375e-01,\\n\",\n       \"                                     4.4751e-02, -8.4467e-03,  1.0384e-01,  2.0667e-01,  1.5470e-01,\\n\",\n       \"                                     6.8581e-02,  1.7625e-01,  4.8077e-02, -1.1737e-01,  2.7715e-01,\\n\",\n       \"                                     3.4703e-01, -1.4836e-01,  6.2579e-02,  3.4763e-02,  1.2605e-01,\\n\",\n       \"                                    -6.6361e-02,  1.4257e-01,  5.6900e-01,  4.5195e-02,  3.9331e-01,\\n\",\n       \"                                    -5.3968e-03,  6.3631e-01,  1.8731e-02,  1.5331e-03,  3.2232e-01,\\n\",\n       \"                                     2.8391e-01,  6.9658e-02,  2.5956e-01,  7.0743e-04,  8.3131e-02,\\n\",\n       \"                                    -4.0698e-02, -2.9941e-02])),\\n\",\n       \"                           ('layer_2.normalizer.weight',\\n\",\n       \"                            tensor([ 0.5702,  0.2644,  0.0021,  0.3180,  0.0068,  0.7779,  0.9335,  0.8019,\\n\",\n       \"                                    -0.0026,  0.0130,  0.2658,  0.7768,  0.2027,  0.8133,  0.4755,  0.4897,\\n\",\n       \"                                     0.8120,  0.8660,  0.7208,  0.6162,  1.0882,  0.4964,  0.3053,  0.7868,\\n\",\n       \"                                     0.7445,  0.4685,  0.4096,  0.6145,  1.0769,  0.5526,  0.0037,  0.4450,\\n\",\n       \"                                     0.8094,  0.4504,  0.1680,  0.2447,  0.7307,  0.8844,  0.7824,  0.9964,\\n\",\n       \"                                     0.6331,  0.3162,  0.7100,  1.1262,  0.7011,  0.6610,  0.3499,  0.3103,\\n\",\n       \"                                     0.3882,  0.4211,  0.8804,  0.8797,  0.8348,  0.3552,  0.8234,  0.6807,\\n\",\n       \"                                     0.8677,  1.0028,  0.5138,  0.4255,  0.2642,  0.3518,  0.8169,  1.1435,\\n\",\n       \"                                     0.4310,  0.6880,  0.4420,  0.4483,  0.3779,  0.8295,  0.7879,  0.4734,\\n\",\n       \"                                     0.4358, -0.3511,  0.8456,  0.9694,  1.0054,  0.7382,  0.5879,  0.7284,\\n\",\n       \"                                     0.2063,  0.6878,  0.2600,  0.2843,  0.3376,  0.7433,  0.2563, -0.2748,\\n\",\n       \"                                     0.2734,  0.8698,  0.8010,  0.5559,  0.4545,  0.4025,  0.3367,  0.3711,\\n\",\n       \"                                     0.6905,  0.4669,  0.2259,  0.7472,  0.5634,  0.5947,  0.5681,  0.5274,\\n\",\n       \"                                     0.3540,  0.2592,  0.7315,  0.1985,  0.6367,  0.6228,  0.5678,  0.7469,\\n\",\n       \"                                     0.4683,  0.7877,  0.3997,  0.7646,  0.4645,  0.5035,  0.9133,  0.0689,\\n\",\n       \"                                     0.5252,  0.2042,  0.3749,  0.8870,  0.2443,  0.5081,  0.5015,  0.2709,\\n\",\n       \"                                     0.8070,  0.6796,  0.3015,  0.7249, -0.0299,  0.2952,  0.8090,  0.8051,\\n\",\n       \"                                     0.5114,  0.7190,  0.7958,  0.8325,  0.2930,  0.5036,  0.4367,  0.4449,\\n\",\n       \"                                     0.3949,  0.2757,  0.4136,  0.8340,  0.1668,  0.3975,  0.6852,  0.3907,\\n\",\n       \"                                     0.9086,  1.0399,  0.4983,  0.4873,  0.9199,  0.7441,  0.3017,  0.9651,\\n\",\n       \"                                     0.7199,  1.2637])),\\n\",\n       \"                           ('layer_2.normalizer.bias',\\n\",\n       \"                            tensor([-0.2877, -0.1392, -0.0760, -0.1539,  0.1394, -0.3909, -0.2643,  0.0480,\\n\",\n       \"                                    -0.0762, -0.0654, -0.1486, -0.4975,  0.0746, -0.2274, -0.5470,  0.1071,\\n\",\n       \"                                    -0.7426, -0.4433, -0.0887, -0.1903, -0.6628, -0.0657, -0.1192, -0.3334,\\n\",\n       \"                                     0.3805, -0.3382,  0.0676, -0.1222, -0.1984, -0.2463, -0.0655, -0.3659,\\n\",\n       \"                                    -0.2818, -0.2096,  0.1345,  0.2461, -0.1120, -0.1843, -0.4706, -0.0271,\\n\",\n       \"                                    -0.1814,  0.2776, -0.1216, -0.6338, -0.4935, -0.2531, -0.2297, -0.1417,\\n\",\n       \"                                    -0.0701, -0.2186, -0.5407, -0.4192, -0.1523, -0.1759,  0.0016, -0.0079,\\n\",\n       \"                                    -0.4961, -0.0490, -0.2012, -0.3597, -0.3253, -0.0746, -0.1436, -0.1339,\\n\",\n       \"                                    -0.4577, -0.0792,  0.1882, -0.2153,  0.0198, -0.4788, -0.0718, -0.7235,\\n\",\n       \"                                    -0.2115, -0.5022,  0.0753,  0.0306, -0.4394, -0.1115, -0.0326, -0.1410,\\n\",\n       \"                                    -0.2049, -0.2567,  0.3239, -0.2708,  0.1325,  0.3172,  0.2874, -0.2593,\\n\",\n       \"                                     0.0281, -0.3286,  0.0809, -0.1017, -0.1189, -0.1250, -0.0465, -0.2186,\\n\",\n       \"                                    -0.2037, -0.5524, -0.1744, -0.3866, -0.2166,  0.1573, -0.3897,  0.0766,\\n\",\n       \"                                    -0.2397,  0.2393, -0.3184, -0.0487, -0.3327, -0.1560, -0.4015,  0.0770,\\n\",\n       \"                                    -0.0272,  0.1276, -0.1546, -0.5013,  0.0713, -0.0201, -0.0893, -0.1252,\\n\",\n       \"                                    -0.2020,  0.3025, -0.2530,  0.2395, -0.3860, -0.4408,  0.0632, -0.5001,\\n\",\n       \"                                    -0.4768, -0.0856,  0.1180, -0.4356, -0.0909, -0.0226, -0.2583, -0.1047,\\n\",\n       \"                                    -0.2219,  0.0344, -0.3541,  0.2453,  0.2751, -0.0668, -0.2798,  0.1193,\\n\",\n       \"                                     0.2693, -0.2330, -0.2963,  0.0207,  0.0744,  0.3772, -0.0594,  0.2716,\\n\",\n       \"                                    -0.5286, -0.0988,  0.0071,  0.0785, -0.4082, -0.0996, -0.2286, -0.1072,\\n\",\n       \"                                    -0.0199, -0.0759])),\\n\",\n       \"                           ('layer_2.normalizer.running_mean',\\n\",\n       \"                            tensor([-0.4771,  0.3641,  0.8236, -0.5117, -0.0686, -0.1060, -0.2271,  1.1366,\\n\",\n       \"                                    -0.2673, -0.6526, -0.0598, -0.3061, -0.8754, -0.5231, -0.1757,  0.4500,\\n\",\n       \"                                    -0.8126, -0.2425, -0.5052, -0.7121, -0.4026, -0.9407, -0.2459, -0.9544,\\n\",\n       \"                                     0.4757, -0.5780, -0.4919,  0.7358, -0.7519, -1.2301, -0.5611, -0.1652,\\n\",\n       \"                                    -0.2985, -1.5551, -0.4821,  0.0284,  0.7578, -0.6171,  1.1162, -0.2456,\\n\",\n       \"                                     0.0706,  0.7641, -0.7250, -0.0534,  0.3452, -1.3787, -0.1682, -0.4565,\\n\",\n       \"                                     0.0713, -0.7465, -0.1761, -0.3235, -0.1148, -1.7422, -0.4193, -0.4965,\\n\",\n       \"                                     1.6195, -0.7968, -0.8410, -0.0312, -0.3054, -1.1875, -0.0566, -0.3492,\\n\",\n       \"                                     0.0022, -0.2289,  0.0654, -0.3188,  1.0440, -0.6859,  0.0535, -0.2057,\\n\",\n       \"                                    -0.9382, -1.3899,  0.4321,  0.1345, -0.8927,  0.0757, -0.8157, -0.7032,\\n\",\n       \"                                    -0.0305, -0.7336,  0.8059, -0.1560,  0.6057,  0.1573,  1.3014, -0.1614,\\n\",\n       \"                                     0.6065, -0.0084, -1.0559, -0.9398, -1.2521,  0.4449, -0.5810, -1.4539,\\n\",\n       \"                                    -0.2939,  0.2501, -0.4125,  0.1147, -0.6748,  0.5822, -1.2044, -0.1167,\\n\",\n       \"                                     0.0862,  0.5174, -0.8685, -1.8570,  0.0200, -0.6124, -0.3150,  0.5020,\\n\",\n       \"                                    -0.7448, -0.5465, -1.0633, -0.2995,  0.4695, -0.5782, -0.0652, -0.5671,\\n\",\n       \"                                    -1.0913, -0.6757,  0.6314, -0.3749, -0.8141, -0.3002,  0.3342, -0.5968,\\n\",\n       \"                                    -0.5119,  0.0035,  0.1476,  0.0465,  0.4401,  0.0067,  0.2266, -0.7001,\\n\",\n       \"                                    -0.3087, -0.8820, -0.2069,  0.8888, -0.2508,  1.0863, -0.4786,  0.1945,\\n\",\n       \"                                     0.5957, -0.1170, -0.3074,  0.1786, -0.8405,  0.0903,  0.1077,  0.4824,\\n\",\n       \"                                    -0.3188,  0.6018,  0.2859, -1.1954, -0.3282, -0.7685, -0.7977, -0.6385,\\n\",\n       \"                                     0.9811,  0.7143])),\\n\",\n       \"                           ('layer_2.normalizer.running_var',\\n\",\n       \"                            tensor([1.2081, 0.7104, 0.2791, 2.3922, 1.3909, 2.2632, 2.7923, 3.4170, 0.2371,\\n\",\n       \"                                    0.8223, 1.3578, 1.3718, 3.6416, 1.1920, 1.7282, 2.5161, 1.9402, 0.8729,\\n\",\n       \"                                    1.1787, 1.5293, 0.9767, 3.6726, 1.8250, 1.4192, 3.7494, 1.0485, 2.5048,\\n\",\n       \"                                    2.8385, 2.6879, 1.5259, 0.3320, 5.0883, 2.3942, 2.9072, 2.1876, 4.2835,\\n\",\n       \"                                    2.2496, 1.4994, 1.1825, 3.0025, 1.3385, 4.1513, 1.3618, 1.3812, 3.3829,\\n\",\n       \"                                    2.7717, 2.4212, 2.5637, 0.7795, 2.8931, 1.4690, 1.9977, 3.8444, 2.4258,\\n\",\n       \"                                    0.9577, 3.2737, 2.3147, 2.9155, 1.6753, 1.4580, 1.7667, 2.2222, 1.0000,\\n\",\n       \"                                    3.4903, 4.8764, 1.9582, 2.8803, 1.6848, 3.7632, 2.2867, 2.3507, 2.0570,\\n\",\n       \"                                    1.8109, 2.8613, 3.5178, 2.9047, 1.7047, 0.8481, 2.2359, 1.6086, 1.2468,\\n\",\n       \"                                    1.9544, 4.4804, 1.5151, 2.4366, 5.1584, 4.9039, 7.4413, 3.6987, 1.0244,\\n\",\n       \"                                    2.5796, 1.8977, 1.5950, 2.9663, 2.5948, 1.5380, 4.0055, 1.2963, 1.2724,\\n\",\n       \"                                    1.0664, 1.9278, 1.7581, 1.5861, 3.4465, 1.5621, 5.3650, 1.7151, 5.2662,\\n\",\n       \"                                    1.2776, 1.0102, 0.9393, 3.4590, 2.4199, 1.5162, 2.2081, 1.1188, 3.0619,\\n\",\n       \"                                    2.5459, 1.2963, 0.4084, 2.9916, 1.2197, 1.8776, 2.3511, 2.1200, 1.6047,\\n\",\n       \"                                    2.1336, 2.0964, 1.9538, 3.3240, 2.2276, 1.0014, 0.3187, 2.3750, 2.5523,\\n\",\n       \"                                    1.7299, 1.6644, 0.9426, 1.8765, 4.0248, 2.9807, 2.4890, 1.6497, 4.3925,\\n\",\n       \"                                    3.5190, 3.1066, 2.3513, 1.8139, 2.6495, 4.8435, 3.8340, 3.7585, 1.8870,\\n\",\n       \"                                    2.6590, 2.8758, 2.4845, 1.1878, 1.7869, 1.4710, 2.2284, 2.6282, 3.5244])),\\n\",\n       \"                           ('layer_2.normalizer.num_batches_tracked',\\n\",\n       \"                            tensor(670)),\\n\",\n       \"                           ('layer_3.linear.weight',\\n\",\n       \"                            tensor([[ 0.1380, -0.1854,  0.0619,  ..., -0.2357,  0.0291, -0.0855],\\n\",\n       \"                                    [ 0.1408,  0.0109,  0.0273,  ..., -0.1300, -0.2806,  0.0283],\\n\",\n       \"                                    [-0.0817,  0.0103, -0.1799,  ...,  0.0643, -0.0872, -0.2488],\\n\",\n       \"                                    ...,\\n\",\n       \"                                    [-0.1365,  0.2386,  0.0441,  ...,  0.1613,  0.0506,  0.0980],\\n\",\n       \"                                    [ 0.0804,  0.0271, -0.0292,  ...,  0.1756, -0.0669,  0.1731],\\n\",\n       \"                                    [ 0.0381,  0.2557, -0.1221,  ...,  0.2586,  0.0182, -0.0256]])),\\n\",\n       \"                           ('layer_3.linear.bias',\\n\",\n       \"                            tensor([ 1.7908e-02, -1.6474e-02, -1.1066e-01,  2.7437e-01,  7.9325e-01,\\n\",\n       \"                                     7.8987e-02,  3.3952e-01, -8.7965e-02,  1.5753e-01, -1.2900e-01,\\n\",\n       \"                                     7.6526e-02,  7.7629e-03,  5.0898e-01, -3.8382e-01, -6.2505e-02,\\n\",\n       \"                                     7.2312e-01,  4.5212e-02,  9.1312e-01,  4.5915e-02,  1.3952e-02,\\n\",\n       \"                                     2.2207e-01, -5.3636e-04,  1.4154e-01,  1.2470e-01,  1.3919e-01,\\n\",\n       \"                                     1.1014e-01,  1.1680e-01, -3.1510e-02,  4.0542e-02, -1.7219e-04,\\n\",\n       \"                                    -1.0441e-01,  5.2226e-01, -5.1104e-02,  3.9572e-01, -2.4648e-01,\\n\",\n       \"                                    -3.9327e-01, -1.4421e-01, -6.7385e-02,  2.2774e-02, -1.5080e-01,\\n\",\n       \"                                    -5.9285e-03,  1.3464e-01,  1.1147e-01, -2.1358e-01, -3.9889e-01,\\n\",\n       \"                                     1.2666e-01])),\\n\",\n       \"                           ('layer_3.normalizer.weight',\\n\",\n       \"                            tensor([ 0.4035,  0.9273,  0.3436,  0.8313, -0.5483,  0.5186,  0.3613,  0.3362,\\n\",\n       \"                                     0.7600,  0.4670,  1.1825,  0.7006,  0.4275,  1.0126,  0.9773,  0.3357,\\n\",\n       \"                                     0.2955,  0.3329,  0.3705, -0.0120,  0.8153,  0.9983,  0.7633,  0.8837,\\n\",\n       \"                                     0.3240,  0.8691,  0.9471,  0.8034,  0.6000,  0.8582,  0.3787,  0.6470,\\n\",\n       \"                                     1.0252,  0.7739,  0.3396,  0.8057,  0.8804,  0.7036,  0.8939,  0.5345,\\n\",\n       \"                                     0.9509,  0.7852,  0.8444,  0.6482,  0.7647,  0.9864])),\\n\",\n       \"                           ('layer_3.normalizer.bias',\\n\",\n       \"                            tensor([ 0.3733,  0.2051, -0.0269,  0.2724, -0.4801, -0.1726,  0.4889,  0.4670,\\n\",\n       \"                                     0.0054,  0.3607, -0.0175,  0.0667,  0.3025, -0.1931,  0.0393,  0.4796,\\n\",\n       \"                                    -0.4264,  0.4658,  0.4557, -0.0588,  0.1771,  0.1360, -0.1883,  0.3348,\\n\",\n       \"                                    -0.0160,  0.1065,  0.2562, -0.0518,  0.2925,  0.1273,  0.6136,  0.2823,\\n\",\n       \"                                    -0.1507,  0.1460,  0.0915, -0.2639,  0.0656,  0.1196, -0.1569,  0.1028,\\n\",\n       \"                                     0.0275,  0.4489,  0.1869, -0.4018, -0.2103, -0.0286])),\\n\",\n       \"                           ('layer_3.normalizer.running_mean',\\n\",\n       \"                            tensor([-0.9715, -2.2032, -1.8011,  0.9685,  0.6200, -0.9597,  0.7768, -2.1247,\\n\",\n       \"                                    -2.0955, -2.6104,  1.6368, -1.4368,  1.0332,  1.4593,  0.8677,  1.6211,\\n\",\n       \"                                    -1.0680,  1.0735, -0.7232,  1.2941, -0.8071, -1.6285, -2.1765, -1.8546,\\n\",\n       \"                                    -1.0937,  0.5600,  0.9602,  0.9767, -0.7245, -1.1330, -2.3668,  0.4982,\\n\",\n       \"                                     0.3226, -1.4879, -3.2258, -0.0994, -2.7357, -1.0780, -2.0709, -1.0271,\\n\",\n       \"                                    -1.8341,  1.0092, -0.7226, -0.3674,  3.3634, -0.3263])),\\n\",\n       \"                           ('layer_3.normalizer.running_var',\\n\",\n       \"                            tensor([ 4.4649,  9.8838,  5.2923,  4.5300,  5.1298,  1.6735,  5.8431,  8.8731,\\n\",\n       \"                                     4.8244,  8.9389,  6.5502,  4.1085,  7.3151,  6.8593,  4.8760,  9.5597,\\n\",\n       \"                                     1.4886,  6.5716,  3.2722,  0.5959,  4.1359,  7.5561,  4.8947,  5.4064,\\n\",\n       \"                                     2.4573,  3.7298,  4.4916,  4.9595,  2.8120,  7.7168, 10.7011,  4.4031,\\n\",\n       \"                                     4.6533,  5.6067,  8.5437,  3.1499,  7.7018,  4.7582,  4.0134,  2.9158,\\n\",\n       \"                                     5.3908,  7.7204,  3.1456,  2.2102, 10.8318,  2.5861])),\\n\",\n       \"                           ('layer_3.normalizer.num_batches_tracked',\\n\",\n       \"                            tensor(670)),\\n\",\n       \"                           ('layer_4.linear.weight',\\n\",\n       \"                            tensor([[ 0.0698, -0.0195, -0.0756,  ..., -0.0462,  0.0105, -0.0389],\\n\",\n       \"                                    [ 0.1114,  0.1341,  0.3744,  ..., -0.1303, -0.5447,  0.0424],\\n\",\n       \"                                    [ 0.4859,  0.2065,  0.2659,  ..., -0.2024, -0.3696, -0.2466],\\n\",\n       \"                                    ...,\\n\",\n       \"                                    [ 0.5584, -0.0504,  0.2195,  ..., -0.2966,  0.0918, -0.2569],\\n\",\n       \"                                    [-0.0763,  0.0830,  0.2275,  ...,  0.0154, -0.0329, -0.0522],\\n\",\n       \"                                    [-0.1180,  0.2637,  0.1172,  ...,  0.1356, -0.6853,  0.2353]])),\\n\",\n       \"                           ('layer_4.linear.bias',\\n\",\n       \"                            tensor([-0.0691, -0.1060, -0.0187,  0.3468,  0.1665,  0.0228, -0.0955, -0.0045,\\n\",\n       \"                                    -0.1590,  0.2351,  0.1438,  0.3307, -0.0113, -0.0621, -0.1006, -0.0504,\\n\",\n       \"                                     0.1788,  0.2348, -0.0194, -0.1862,  0.3357,  0.0535,  0.0694,  0.0870,\\n\",\n       \"                                    -0.1025,  0.2098,  0.0873,  0.1724,  0.0155, -0.0475,  0.0931,  0.3493])),\\n\",\n       \"                           ('layer_4.normalizer.weight',\\n\",\n       \"                            tensor([ 0.2297,  0.2990,  0.2737,  0.8078,  0.5716,  0.4337,  0.6599,  0.4357,\\n\",\n       \"                                     0.3786,  0.7697,  0.3827,  1.0374,  0.9383,  0.4150,  0.5763,  0.0082,\\n\",\n       \"                                     0.5816,  0.2989,  0.7998,  1.0263,  0.8123,  0.3771,  0.6268,  0.8554,\\n\",\n       \"                                     0.5588, -0.6344,  0.5484,  0.7461,  0.9628,  0.8320,  0.6235,  0.9862])),\\n\",\n       \"                           ('layer_4.normalizer.bias',\\n\",\n       \"                            tensor([-0.1278,  0.4389,  0.4260,  0.3198, -0.1430,  0.3581, -0.2091, -0.0930,\\n\",\n       \"                                     0.3896,  0.3542, -0.1799,  0.2433,  0.2380, -0.1205,  0.3009, -0.0899,\\n\",\n       \"                                     0.2727,  0.4550, -0.1858,  0.1964,  0.4114, -0.0596,  0.0278, -0.2187,\\n\",\n       \"                                     0.0882, -0.0525, -0.0552,  0.2251,  0.2028,  0.1410, -0.1418,  0.2488])),\\n\",\n       \"                           ('layer_4.normalizer.running_mean',\\n\",\n       \"                            tensor([-0.2209, -0.0189, -0.1345, -0.8261, -0.1632, -0.5029,  0.1678,  0.3956,\\n\",\n       \"                                    -0.2796, -0.5636, -0.1228, -0.5516, -0.8519,  0.3655, -0.5660, -0.3087,\\n\",\n       \"                                    -0.7080, -0.0173, -0.1170, -0.6635, -0.8329,  0.0423, -0.4747, -0.1199,\\n\",\n       \"                                    -0.5585,  0.8095,  0.2742, -0.8614, -0.7616, -0.3526,  0.0804, -0.6352])),\\n\",\n       \"                           ('layer_4.normalizer.running_var',\\n\",\n       \"                            tensor([ 0.1660,  9.9155,  9.3877, 10.0118,  1.8771,  8.6701,  0.9420,  1.2411,\\n\",\n       \"                                     7.6982,  7.8437,  0.5575,  8.9085, 10.7996,  1.3539,  6.6764,  0.0753,\\n\",\n       \"                                     6.6262,  9.5189,  0.6057,  5.4100,  8.8232,  1.7903,  4.0475,  1.0141,\\n\",\n       \"                                     3.2860,  5.7909,  1.9748,  6.6539,  7.9738,  4.0276,  0.9936,  6.8559])),\\n\",\n       \"                           ('layer_4.normalizer.num_batches_tracked',\\n\",\n       \"                            tensor(670)),\\n\",\n       \"                           ('output.weight',\\n\",\n       \"                            tensor([[ 0.0907,  0.3841,  0.4231,  0.2701,  0.1529,  0.3734,  0.1848,  0.1908,\\n\",\n       \"                                      0.3445,  0.2799,  0.2094,  0.2791,  0.2999,  0.2314,  0.3558,  0.0392,\\n\",\n       \"                                      0.3215,  0.3956,  0.1413,  0.2460,  0.2496,  0.1880,  0.2432,  0.1266,\\n\",\n       \"                                      0.2394, -0.7282,  0.2006,  0.2259,  0.2687,  0.2108,  0.1736,  0.2261]])),\\n\",\n       \"                           ('output.bias', tensor([0.1369]))]))])\"\n      ]\n     },\n     \"execution_count\": 23,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"checker.checkpoints['mse_3']\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### reuse model using trainer\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"`xenonpy.model.training.Trainer` can load model and checkpoints from checker or from model directory directly.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 24,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.model.training import Trainer\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 25,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"Trainer(clip_grad=None, cuda=None, epochs=200, loss_func=None,\\n\",\n       \"        lr_scheduler=None,\\n\",\n       \"        model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=180, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(180, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(...\\n\",\n       \"    (normalizer): BatchNorm1d(46, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_4): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=46, out_features=32, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(32, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=32, out_features=1, bias=True)\\n\",\n       \"),\\n\",\n       \"        non_blocking=False, optimizer=None)\"\n      ]\n     },\n     \"execution_count\": 25,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"trainer = Trainer.load(from_=checker)\\n\",\n    \"trainer\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"The following codes show how to reuse model for prediction.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 26,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>band_gap</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>density</th>\\n\",\n       \"      <th>e_above_hull</th>\\n\",\n       \"      <th>efermi</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>final_energy_per_atom</th>\\n\",\n       \"      <th>formation_energy_per_atom</th>\\n\",\n       \"      <th>pretty_formula</th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"      <th>volume</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1008807</td>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"      <td>{'Rb': 1.0, 'Cu': 1.0, 'O': 1.0}</td>\\n\",\n       \"      <td>4.784634</td>\\n\",\n       \"      <td>0.996372</td>\\n\",\n       \"      <td>1.100617</td>\\n\",\n       \"      <td>[Rb, Cu, O]</td>\\n\",\n       \"      <td>-3.302762</td>\\n\",\n       \"      <td>-0.186408</td>\\n\",\n       \"      <td>RbCuO</td>\\n\",\n       \"      <td>[[-3.05935361 -3.05935361 -3.05935361] Rb, [0....</td>\\n\",\n       \"      <td>57.268924</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1009640</td>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"      <td>{'Pr': 1.0, 'N': 1.0}</td>\\n\",\n       \"      <td>8.145777</td>\\n\",\n       \"      <td>0.759393</td>\\n\",\n       \"      <td>5.213442</td>\\n\",\n       \"      <td>[Pr, N]</td>\\n\",\n       \"      <td>-7.082624</td>\\n\",\n       \"      <td>-0.714336</td>\\n\",\n       \"      <td>PrN</td>\\n\",\n       \"      <td>[[0. 0. 0.] Pr, [1.57925232 1.57925232 1.58276...</td>\\n\",\n       \"      <td>31.579717</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1016825</td>\\n\",\n       \"      <td>0.7745</td>\\n\",\n       \"      <td>{'Hf': 1.0, 'Mg': 1.0, 'O': 3.0}</td>\\n\",\n       \"      <td>6.165888</td>\\n\",\n       \"      <td>0.589550</td>\\n\",\n       \"      <td>2.424570</td>\\n\",\n       \"      <td>[Hf, Mg, O]</td>\\n\",\n       \"      <td>-7.911723</td>\\n\",\n       \"      <td>-3.060060</td>\\n\",\n       \"      <td>HfMgO3</td>\\n\",\n       \"      <td>[[2.03622802 2.03622802 2.03622802] Hf, [0. 0....</td>\\n\",\n       \"      <td>67.541269</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            band_gap                       composition   density  \\\\\\n\",\n       \"mp-1008807    0.0000  {'Rb': 1.0, 'Cu': 1.0, 'O': 1.0}  4.784634   \\n\",\n       \"mp-1009640    0.0000             {'Pr': 1.0, 'N': 1.0}  8.145777   \\n\",\n       \"mp-1016825    0.7745  {'Hf': 1.0, 'Mg': 1.0, 'O': 3.0}  6.165888   \\n\",\n       \"\\n\",\n       \"            e_above_hull    efermi     elements  final_energy_per_atom  \\\\\\n\",\n       \"mp-1008807      0.996372  1.100617  [Rb, Cu, O]              -3.302762   \\n\",\n       \"mp-1009640      0.759393  5.213442      [Pr, N]              -7.082624   \\n\",\n       \"mp-1016825      0.589550  2.424570  [Hf, Mg, O]              -7.911723   \\n\",\n       \"\\n\",\n       \"            formation_energy_per_atom pretty_formula  \\\\\\n\",\n       \"mp-1008807                  -0.186408          RbCuO   \\n\",\n       \"mp-1009640                  -0.714336            PrN   \\n\",\n       \"mp-1016825                  -3.060060         HfMgO3   \\n\",\n       \"\\n\",\n       \"                                                    structure     volume  \\n\",\n       \"mp-1008807  [[-3.05935361 -3.05935361 -3.05935361] Rb, [0....  57.268924  \\n\",\n       \"mp-1009640  [[0. 0. 0.] Pr, [1.57925232 1.57925232 1.58276...  31.579717  \\n\",\n       \"mp-1016825  [[2.03622802 2.03622802 2.03622802] Hf, [0. 0....  67.541269  \"\n      ]\n     },\n     \"execution_count\": 26,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# if you have not had the samples data\\n\",\n    \"# preset.build('mp_samples', api_key=<your materials project api key>)\\n\",\n    \"from xenonpy.datatools import preset\\n\",\n    \"\\n\",\n    \"data = preset.mp_samples\\n\",\n    \"data.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 27,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1008807</td>\\n\",\n       \"      <td>24.666667</td>\\n\",\n       \"      <td>174.067140</td>\\n\",\n       \"      <td>209.333333</td>\\n\",\n       \"      <td>25.666667</td>\\n\",\n       \"      <td>55.004267</td>\\n\",\n       \"      <td>1297.063333</td>\\n\",\n       \"      <td>72.868680</td>\\n\",\n       \"      <td>1646.90</td>\\n\",\n       \"      <td>139.333333</td>\\n\",\n       \"      <td>128.333333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.360</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>349.5</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1009640</td>\\n\",\n       \"      <td>33.000000</td>\\n\",\n       \"      <td>137.000000</td>\\n\",\n       \"      <td>232.500000</td>\\n\",\n       \"      <td>19.050000</td>\\n\",\n       \"      <td>77.457330</td>\\n\",\n       \"      <td>1931.200000</td>\\n\",\n       \"      <td>43.182441</td>\\n\",\n       \"      <td>1892.85</td>\\n\",\n       \"      <td>137.000000</td>\\n\",\n       \"      <td>123.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.192</td>\\n\",\n       \"      <td>0.02583</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>166.0</td>\\n\",\n       \"      <td>193.0</td>\\n\",\n       \"      <td>360.6</td>\\n\",\n       \"      <td>333.6</td>\\n\",\n       \"      <td>1.100</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1016825</td>\\n\",\n       \"      <td>21.600000</td>\\n\",\n       \"      <td>153.120852</td>\\n\",\n       \"      <td>203.400000</td>\\n\",\n       \"      <td>13.920000</td>\\n\",\n       \"      <td>50.158400</td>\\n\",\n       \"      <td>1420.714000</td>\\n\",\n       \"      <td>76.663625</td>\\n\",\n       \"      <td>343.82</td>\\n\",\n       \"      <td>102.800000</td>\\n\",\n       \"      <td>96.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.146</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>302.1</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>3 rows × 290 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-1008807          24.666667         174.067140              209.333333   \\n\",\n       \"mp-1009640          33.000000         137.000000              232.500000   \\n\",\n       \"mp-1016825          21.600000         153.120852              203.400000   \\n\",\n       \"\\n\",\n       \"            ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-1008807          25.666667          55.004267        1297.063333   \\n\",\n       \"mp-1009640          19.050000          77.457330        1931.200000   \\n\",\n       \"mp-1016825          13.920000          50.158400        1420.714000   \\n\",\n       \"\\n\",\n       \"            ave:bulk_modulus  ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-1008807         72.868680    1646.90                   139.333333   \\n\",\n       \"mp-1009640         43.182441    1892.85                   137.000000   \\n\",\n       \"mp-1016825         76.663625     343.82                   102.800000   \\n\",\n       \"\\n\",\n       \"            ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"mp-1008807                  128.333333  ...                1.0         2.0   \\n\",\n       \"mp-1009640                  123.500000  ...                2.0         2.0   \\n\",\n       \"mp-1016825                   96.000000  ...                2.0         2.0   \\n\",\n       \"\\n\",\n       \"            min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"mp-1008807              0.360                   0.02658           152.0   \\n\",\n       \"mp-1009640              0.192                   0.02583           155.0   \\n\",\n       \"mp-1016825              0.146                   0.02658           152.0   \\n\",\n       \"\\n\",\n       \"            min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"mp-1008807                   150.0               182.0               349.5   \\n\",\n       \"mp-1009640                   166.0               193.0               360.6   \\n\",\n       \"mp-1016825                   150.0               182.0               302.1   \\n\",\n       \"\\n\",\n       \"            min:sound_velocity  min:Polarizability  \\n\",\n       \"mp-1008807               317.5               0.802  \\n\",\n       \"mp-1009640               333.6               1.100  \\n\",\n       \"mp-1016825               317.5               0.802  \\n\",\n       \"\\n\",\n       \"[3 rows x 290 columns]\"\n      ]\n     },\n     \"execution_count\": 27,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>efermi</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1008807</td>\\n\",\n       \"      <td>1.100617</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1009640</td>\\n\",\n       \"      <td>5.213442</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1016825</td>\\n\",\n       \"      <td>2.424570</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"              efermi\\n\",\n       \"mp-1008807  1.100617\\n\",\n       \"mp-1009640  5.213442\\n\",\n       \"mp-1016825  2.424570\"\n      ]\n     },\n     \"execution_count\": 27,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import Compositions\\n\",\n    \"\\n\",\n    \"prop = data['efermi'].dropna().to_frame()  # reshape to 2-D\\n\",\n    \"desc = Compositions(featurizers='classic').transform(data.loc[prop.index]['composition'])\\n\",\n    \"\\n\",\n    \"desc.head(3)\\n\",\n    \"prop.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 28,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Missing directory and/or file name information!\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x720 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"y_pred = trainer.predict(x_in=torch.tensor(desc.values, dtype=torch.float)).detach().numpy().flatten()\\n\",\n    \"y_true = prop.values.flatten()\\n\",\n    \"\\n\",\n    \"draw(y_true, y_pred, prop_name='Efermi ($eV$)')\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.4\"\n  },\n  \"pycharm\": {\n   \"stem_cell\": {\n    \"cell_type\": \"raw\",\n    \"source\": [],\n    \"metadata\": {\n     \"collapsed\": false\n    }\n   }\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 2\n}"
  },
  {
    "path": "docs/source/tutorials/6-transfer_learning.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# Transfer Learning\\n\",\n    \"\\n\",\n    \"There are various methods for transfer learning such as **fine tuning** and **frozen feature extraction**. In this tutorial, we will demonstrate how to perform a **frozen feature extraction** type of transfer learning in XenonPy.\\n\",\n    \"\\n\",\n    \"This tutorial will use **Refractive Index** data, which are collected from [Polymer Genome](https://www.polymergenome.org). We do not provide these data directly in this tutorial. If you want to rerun this notebook locally, you must collect these data yourself.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### frozen feature extraction\\n\",\n    \"\\n\",\n    \"A frozen feature extraction type of transfer learning can be split into 2 steps:\\n\",\n    \"\\n\",\n    \"1. you need to have pre-trained model(s) as source model(s). This can be done by accessing **XenonPy.MDL**.\\n\",\n    \"2. you need a feature extractor to generate \\\"neural descriptors\\\" from the source model(s).\\n\",\n    \"Here, we would like to introduce you to our feature extractor, ``xenonpy.descriptor.FrozenFeaturizer``.\\n\",\n    \"\\n\",\n    \"The following codes show a case study of transfer learning between **Refractive Index** of inorganic and organic materials. In this example, the source models will be trained on inorganic compounds and the target will be polymers.\\n\",\n    \"\\n\",\n    \"Let's do this transfer learning step-by-step.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### useful functions\\n\",\n    \"\\n\",\n    \"Running the following cell will load some commonly used packages, such as [NumPy](https://numpy.org/), [pandas](https://pandas.pydata.org/), and so on. It will also import some in-house functions used in this tutorial. See *'tools.ipynb'* file to check what will be imported.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run tools.ipynb\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### access pre-trained models with MDL class\\n\",\n    \"\\n\",\n    \"We prepared a wide range of APIs to let you query and download our models.\\n\",\n    \"These APIs can be accessed via any HTTP requests.\\n\",\n    \"For convenience, we implemented some of the most popular APIs and wrapped them into XenonPy.\\n\",\n    \"All these functions can be accessed using `xenonpy.mdl.MDL`.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"MDL(api_key='anonymous.user.key', endpoint='http://xenon.ism.ac.jp/api')\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"'0.1.1'\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.mdl import MDL\\n\",\n    \"\\n\",\n    \"mdl = MDL()\\n\",\n    \"mdl\\n\",\n    \"\\n\",\n    \"mdl.version\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 1. query **Refractive Index** models \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 29,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"QueryModelDetailsWith(api_key='anonymous.user.key', endpoint='http://xenon.ism.ac.jp/api', variables={'modelset_has': 'Stable', 'property_has': 'refractive'})\\n\",\n       \"Queryable: \\n\",\n       \" id\\n\",\n       \" transferred\\n\",\n       \" succeed\\n\",\n       \" isRegression\\n\",\n       \" deprecated\\n\",\n       \" modelset\\n\",\n       \" method\\n\",\n       \" property\\n\",\n       \" descriptor\\n\",\n       \" lang\\n\",\n       \" accuracy\\n\",\n       \" precision\\n\",\n       \" recall\\n\",\n       \" f1\\n\",\n       \" sensitivity\\n\",\n       \" prevalence\\n\",\n       \" specificity\\n\",\n       \" ppv\\n\",\n       \" npv\\n\",\n       \" meanAbsError\\n\",\n       \" maxAbsError\\n\",\n       \" meanSquareError\\n\",\n       \" rootMeanSquareError\\n\",\n       \" r2\\n\",\n       \" pValue\\n\",\n       \" spearmanCorr\\n\",\n       \" pearsonCorr\"\n      ]\n     },\n     \"execution_count\": 29,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"query = mdl(modelset_has=\\\"Stable\\\", property_has=\\\"refractive\\\")\\n\",\n    \"query\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 30,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th>modelset</th>\\n\",\n       \"      <th>meanAbsError</th>\\n\",\n       \"      <th>pearsonCorr</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>311</td>\\n\",\n       \"      <td>2949</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>0.282434</td>\\n\",\n       \"      <td>0.873065</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>847</td>\\n\",\n       \"      <td>4017</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>0.290382</td>\\n\",\n       \"      <td>0.827995</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1189</td>\\n\",\n       \"      <td>4702</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>0.293135</td>\\n\",\n       \"      <td>0.876289</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"        id                                         modelset  meanAbsError  \\\\\\n\",\n       \"311   2949  Stable inorganic compounds in materials project      0.282434   \\n\",\n       \"847   4017  Stable inorganic compounds in materials project      0.290382   \\n\",\n       \"1189  4702  Stable inorganic compounds in materials project      0.293135   \\n\",\n       \"\\n\",\n       \"      pearsonCorr  \\n\",\n       \"311      0.873065  \\n\",\n       \"847      0.827995  \\n\",\n       \"1189     0.876289  \"\n      ]\n     },\n     \"execution_count\": 30,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"summary = query('id', 'modelset', 'meanAbsError', 'pearsonCorr').sort_values('meanAbsError')\\n\",\n    \"summary.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 2. download the best performing model based on MAE\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 31,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"100%|██████████| 1/1 [00:00<00:00,  1.26it/s]\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th>model</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>2335</td>\\n\",\n       \"      <td>/Users/liuchang/Google 云端硬盘/postdoctoral/tutor...</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"     id                                              model\\n\",\n       \"0  2335  /Users/liuchang/Google 云端硬盘/postdoctoral/tutor...\"\n      ]\n     },\n     \"execution_count\": 31,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"results = mdl.pull(summary.id[0].item())\\n\",\n    \"results\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 3. load **Refractive Index** data from Polymer Genome and calculate the ``Composition`` descriptors\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 32,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>Smiles</th>\\n\",\n       \"      <th>Natoms</th>\\n\",\n       \"      <th>Ntypes</th>\\n\",\n       \"      <th>Volume of Cell($\\\\AA^3$)</th>\\n\",\n       \"      <th>Band Gap, PBE(eV)</th>\\n\",\n       \"      <th>Band Gap, HSE06(eV)</th>\\n\",\n       \"      <th>Dielectric Constant</th>\\n\",\n       \"      <th>Dielectric Constant, Electronic</th>\\n\",\n       \"      <th>Dielectric Constant, Ionic</th>\\n\",\n       \"      <th>Atomization Energy(eV/atom)</th>\\n\",\n       \"      <th>Density(g/cm$^3$)</th>\\n\",\n       \"      <th>Refractive Index</th>\\n\",\n       \"      <th>Ionization Energy(eV)</th>\\n\",\n       \"      <th>Electron Affinity(eV)</th>\\n\",\n       \"      <th>Cohesive Energy(eV/atom)</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>Formula</th>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>ID_name</th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL1</td>\\n\",\n       \"      <td>[C@H]([CH]O)(O[C@H]1[C@H](CO)O[C@@H]([CH][C@@H...</td>\\n\",\n       \"      <td>84</td>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>572.42</td>\\n\",\n       \"      <td>5.62</td>\\n\",\n       \"      <td>7.48</td>\\n\",\n       \"      <td>3.78</td>\\n\",\n       \"      <td>2.85</td>\\n\",\n       \"      <td>0.93</td>\\n\",\n       \"      <td>-5.48</td>\\n\",\n       \"      <td>1.88</td>\\n\",\n       \"      <td>1.69</td>\\n\",\n       \"      <td>6.87</td>\\n\",\n       \"      <td>0.83</td>\\n\",\n       \"      <td>-0.63</td>\\n\",\n       \"      <td>{'O': 20.0, 'H': 40.0, 'C': 24.0}</td>\\n\",\n       \"      <td>H40C24O20</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL2</td>\\n\",\n       \"      <td>[CH][C@H](C[C@@H](C[C@H](C[CH][C]=[CH])C(=[CH]...</td>\\n\",\n       \"      <td>128</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>1258.30</td>\\n\",\n       \"      <td>3.94</td>\\n\",\n       \"      <td>4.83</td>\\n\",\n       \"      <td>2.72</td>\\n\",\n       \"      <td>2.64</td>\\n\",\n       \"      <td>0.08</td>\\n\",\n       \"      <td>-5.90</td>\\n\",\n       \"      <td>1.10</td>\\n\",\n       \"      <td>1.62</td>\\n\",\n       \"      <td>3.56</td>\\n\",\n       \"      <td>1.56</td>\\n\",\n       \"      <td>-0.63</td>\\n\",\n       \"      <td>{'C': 64.0, 'H': 64.0}</td>\\n\",\n       \"      <td>H64C64</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL3</td>\\n\",\n       \"      <td>C[C@H](C[CH][CH][CH]C)[CH2].C[C@@H](C[CH][CH][...</td>\\n\",\n       \"      <td>108</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>762.10</td>\\n\",\n       \"      <td>6.32</td>\\n\",\n       \"      <td>7.70</td>\\n\",\n       \"      <td>2.61</td>\\n\",\n       \"      <td>2.59</td>\\n\",\n       \"      <td>0.02</td>\\n\",\n       \"      <td>-5.14</td>\\n\",\n       \"      <td>1.10</td>\\n\",\n       \"      <td>1.61</td>\\n\",\n       \"      <td>6.19</td>\\n\",\n       \"      <td>0.43</td>\\n\",\n       \"      <td>-0.51</td>\\n\",\n       \"      <td>{'C': 36.0, 'H': 72.0}</td>\\n\",\n       \"      <td>H72C36</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                                    Smiles  Natoms  Ntypes  \\\\\\n\",\n       \"ID_name                                                                      \\n\",\n       \"MOL1     [C@H]([CH]O)(O[C@H]1[C@H](CO)O[C@@H]([CH][C@@H...      84       3   \\n\",\n       \"MOL2     [CH][C@H](C[C@@H](C[C@H](C[CH][C]=[CH])C(=[CH]...     128       2   \\n\",\n       \"MOL3     C[C@H](C[CH][CH][CH]C)[CH2].C[C@@H](C[CH][CH][...     108       2   \\n\",\n       \"\\n\",\n       \"         Volume of Cell($\\\\AA^3$)  Band Gap, PBE(eV)  Band Gap, HSE06(eV)  \\\\\\n\",\n       \"ID_name                                                                    \\n\",\n       \"MOL1                      572.42               5.62                 7.48   \\n\",\n       \"MOL2                     1258.30               3.94                 4.83   \\n\",\n       \"MOL3                      762.10               6.32                 7.70   \\n\",\n       \"\\n\",\n       \"         Dielectric Constant  Dielectric Constant, Electronic  \\\\\\n\",\n       \"ID_name                                                         \\n\",\n       \"MOL1                    3.78                             2.85   \\n\",\n       \"MOL2                    2.72                             2.64   \\n\",\n       \"MOL3                    2.61                             2.59   \\n\",\n       \"\\n\",\n       \"         Dielectric Constant, Ionic  Atomization Energy(eV/atom)  \\\\\\n\",\n       \"ID_name                                                            \\n\",\n       \"MOL1                           0.93                        -5.48   \\n\",\n       \"MOL2                           0.08                        -5.90   \\n\",\n       \"MOL3                           0.02                        -5.14   \\n\",\n       \"\\n\",\n       \"         Density(g/cm$^3$)  Refractive Index  Ionization Energy(eV)  \\\\\\n\",\n       \"ID_name                                                               \\n\",\n       \"MOL1                  1.88              1.69                   6.87   \\n\",\n       \"MOL2                  1.10              1.62                   3.56   \\n\",\n       \"MOL3                  1.10              1.61                   6.19   \\n\",\n       \"\\n\",\n       \"         Electron Affinity(eV)  Cohesive Energy(eV/atom)  \\\\\\n\",\n       \"ID_name                                                    \\n\",\n       \"MOL1                      0.83                     -0.63   \\n\",\n       \"MOL2                      1.56                     -0.63   \\n\",\n       \"MOL3                      0.43                     -0.51   \\n\",\n       \"\\n\",\n       \"                               composition    Formula  \\n\",\n       \"ID_name                                                \\n\",\n       \"MOL1     {'O': 20.0, 'H': 40.0, 'C': 24.0}  H40C24O20  \\n\",\n       \"MOL2                {'C': 64.0, 'H': 64.0}     H64C64  \\n\",\n       \"MOL3                {'C': 36.0, 'H': 72.0}     H72C36  \"\n      ]\n     },\n     \"execution_count\": 32,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"pg = <load your polymer genome data>\\n\",\n    \"pg.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 33,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>ID_name</th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL1</td>\\n\",\n       \"      <td>4.095238</td>\\n\",\n       \"      <td>98.42891</td>\\n\",\n       \"      <td>168.333333</td>\\n\",\n       \"      <td>11.561905</td>\\n\",\n       \"      <td>7.721000</td>\\n\",\n       \"      <td>1488.27381</td>\\n\",\n       \"      <td>54.596505</td>\\n\",\n       \"      <td>20.761905</td>\\n\",\n       \"      <td>51.333333</td>\\n\",\n       \"      <td>51.666667</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.711</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL2</td>\\n\",\n       \"      <td>3.500000</td>\\n\",\n       \"      <td>85.00000</td>\\n\",\n       \"      <td>172.000000</td>\\n\",\n       \"      <td>9.700000</td>\\n\",\n       \"      <td>6.509500</td>\\n\",\n       \"      <td>2560.14000</td>\\n\",\n       \"      <td>44.899820</td>\\n\",\n       \"      <td>27.205000</td>\\n\",\n       \"      <td>52.000000</td>\\n\",\n       \"      <td>53.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.711</td>\\n\",\n       \"      <td>0.18050</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>1270.0</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL3</td>\\n\",\n       \"      <td>2.666667</td>\\n\",\n       \"      <td>83.00000</td>\\n\",\n       \"      <td>166.000000</td>\\n\",\n       \"      <td>11.166667</td>\\n\",\n       \"      <td>4.675667</td>\\n\",\n       \"      <td>1713.52000</td>\\n\",\n       \"      <td>48.866426</td>\\n\",\n       \"      <td>20.306667</td>\\n\",\n       \"      <td>45.000000</td>\\n\",\n       \"      <td>46.333333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.711</td>\\n\",\n       \"      <td>0.18050</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>1270.0</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>3 rows × 290 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"         ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"ID_name                                                                 \\n\",\n       \"MOL1              4.095238           98.42891              168.333333   \\n\",\n       \"MOL2              3.500000           85.00000              172.000000   \\n\",\n       \"MOL3              2.666667           83.00000              166.000000   \\n\",\n       \"\\n\",\n       \"         ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"ID_name                                                            \\n\",\n       \"MOL1             11.561905           7.721000         1488.27381   \\n\",\n       \"MOL2              9.700000           6.509500         2560.14000   \\n\",\n       \"MOL3             11.166667           4.675667         1713.52000   \\n\",\n       \"\\n\",\n       \"         ave:bulk_modulus  ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"ID_name                                                             \\n\",\n       \"MOL1            54.596505  20.761905                    51.333333   \\n\",\n       \"MOL2            44.899820  27.205000                    52.000000   \\n\",\n       \"MOL3            48.866426  20.306667                    45.000000   \\n\",\n       \"\\n\",\n       \"         ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"ID_name                              ...                                  \\n\",\n       \"MOL1                      51.666667  ...                1.0         1.0   \\n\",\n       \"MOL2                      53.500000  ...                1.0         1.0   \\n\",\n       \"MOL3                      46.333333  ...                1.0         1.0   \\n\",\n       \"\\n\",\n       \"         min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"ID_name                                                                \\n\",\n       \"MOL1                 0.711                   0.02658           110.0   \\n\",\n       \"MOL2                 0.711                   0.18050           110.0   \\n\",\n       \"MOL3                 0.711                   0.18050           110.0   \\n\",\n       \"\\n\",\n       \"         min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"ID_name                                                                   \\n\",\n       \"MOL1                      120.0               162.0               288.6   \\n\",\n       \"MOL2                      120.0               162.0               288.6   \\n\",\n       \"MOL3                      120.0               162.0               288.6   \\n\",\n       \"\\n\",\n       \"         min:sound_velocity  min:Polarizability  \\n\",\n       \"ID_name                                          \\n\",\n       \"MOL1                  317.5            0.666793  \\n\",\n       \"MOL2                 1270.0            0.666793  \\n\",\n       \"MOL3                 1270.0            0.666793  \\n\",\n       \"\\n\",\n       \"[3 rows x 290 columns]\"\n      ]\n     },\n     \"execution_count\": 33,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import Compositions\\n\",\n    \"\\n\",\n    \"pg_desc = Compositions().transform(pg['composition'])\\n\",\n    \"pg_desc.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 4. predict Polymer Genome **Refractive Index** directly from a model trained on inorganic compounds\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 34,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<Checker> includes:\\n\",\n       \"\\\"mse_3\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mse_3.pth.s\\n\",\n       \"\\\"mse_1\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mse_1.pth.s\\n\",\n       \"\\\"mae_2\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mae_2.pth.s\\n\",\n       \"\\\"r2_5\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/r2_5.pth.s\\n\",\n       \"\\\"mse_5\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mse_5.pth.s\\n\",\n       \"\\\"r2_1\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/r2_1.pth.s\\n\",\n       \"\\\"mae_4\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mae_4.pth.s\\n\",\n       \"\\\"r2_3\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/r2_3.pth.s\\n\",\n       \"\\\"mae_3\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mae_3.pth.s\\n\",\n       \"\\\"r2_4\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/r2_4.pth.s\\n\",\n       \"\\\"mse_2\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mse_2.pth.s\\n\",\n       \"\\\"mae_1\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mae_1.pth.s\\n\",\n       \"\\\"mae_5\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mae_5.pth.s\\n\",\n       \"\\\"r2_2\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/r2_2.pth.s\\n\",\n       \"\\\"mse_4\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mse_4.pth.s\\n\",\n       \"\\\"pearsonr_5\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/pearsonr_5.pth.s\\n\",\n       \"\\\"pearsonr_1\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/pearsonr_1.pth.s\\n\",\n       \"\\\"pearsonr_3\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/pearsonr_3.pth.s\\n\",\n       \"\\\"pearsonr_4\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/pearsonr_4.pth.s\\n\",\n       \"\\\"pearsonr_2\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/pearsonr_2.pth.s\"\n      ]\n     },\n     \"execution_count\": 34,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.model.training import Checker\\n\",\n    \"\\n\",\n    \"checker = Checker(results.model[0])\\n\",\n    \"checker.checkpoints\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 35,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"Trainer(clip_grad=None, cuda=None, epochs=200, loss_func=None,\\n\",\n       \"        lr_scheduler=None,\\n\",\n       \"        model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=187, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(187, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(...\\n\",\n       \"    (normalizer): BatchNorm1d(110, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=110, out_features=102, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(102, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=102, out_features=1, bias=True)\\n\",\n       \"),\\n\",\n       \"        non_blocking=False, optimizer=None)\"\n      ]\n     },\n     \"execution_count\": 35,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# --- pre-trained model for prediction\\n\",\n    \"from xenonpy.model.training import Trainer\\n\",\n    \"\\n\",\n    \"trainer = Trainer.load(from_=checker)\\n\",\n    \"trainer\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 36,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Missing directory and/or file name information!\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x720 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"trainer.reset(to='mae_1')\\n\",\n    \"\\n\",\n    \"y_pred = trainer.predict(x_in=torch.tensor(pg_desc.values, dtype=torch.float)).detach().numpy().flatten()\\n\",\n    \"y_true = pg['Refractive Index'].values\\n\",\n    \"\\n\",\n    \"draw(y_true, y_pred, prop_name='Refractive Index')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 5. frozen feature extraction\\n\",\n    \"\\n\",\n    \"``FrozenFeaturizer`` accepts a [Pytorch](https://pytorch.org) model as its input.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 37,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"FrozenFeaturizer(cuda=False, depth=None,\\n\",\n       \"                 model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=187, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(187, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=187, out_features=151, bias=...\\n\",\n       \"    (normalizer): BatchNorm1d(110, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=110, out_features=102, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(102, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=102, out_features=1, bias=True)\\n\",\n       \"),\\n\",\n       \"                 on_errors='raise', return_type='any')\"\n      ]\n     },\n     \"execution_count\": 37,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import FrozenFeaturizer\\n\",\n    \"\\n\",\n    \"# --- init FrozenFeaturizer with NN model\\n\",\n    \"ff = FrozenFeaturizer(model=trainer.model)\\n\",\n    \"ff\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"The following code will generate new \\\"neural descriptors\\\" from the corresponding neural network model.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 38,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"neural_descriptors = ff.transform(pg_desc, depth=2 ,return_type='df')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Here, ``depth=x`` means that the last x hidden layer from the output neuron(s) will be concatenated and used as the neural descriptor.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 39,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>L(-2)_1</th>\\n\",\n       \"      <th>L(-2)_2</th>\\n\",\n       \"      <th>L(-2)_3</th>\\n\",\n       \"      <th>L(-2)_4</th>\\n\",\n       \"      <th>L(-2)_5</th>\\n\",\n       \"      <th>L(-2)_6</th>\\n\",\n       \"      <th>L(-2)_7</th>\\n\",\n       \"      <th>L(-2)_8</th>\\n\",\n       \"      <th>L(-2)_9</th>\\n\",\n       \"      <th>L(-2)_10</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>L(-1)_93</th>\\n\",\n       \"      <th>L(-1)_94</th>\\n\",\n       \"      <th>L(-1)_95</th>\\n\",\n       \"      <th>L(-1)_96</th>\\n\",\n       \"      <th>L(-1)_97</th>\\n\",\n       \"      <th>L(-1)_98</th>\\n\",\n       \"      <th>L(-1)_99</th>\\n\",\n       \"      <th>L(-1)_100</th>\\n\",\n       \"      <th>L(-1)_101</th>\\n\",\n       \"      <th>L(-1)_102</th>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>ID_name</th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL1</td>\\n\",\n       \"      <td>-1.499497</td>\\n\",\n       \"      <td>1.254353</td>\\n\",\n       \"      <td>-1.071701</td>\\n\",\n       \"      <td>-2.697761</td>\\n\",\n       \"      <td>-1.807236</td>\\n\",\n       \"      <td>-2.01011</td>\\n\",\n       \"      <td>-1.944547</td>\\n\",\n       \"      <td>-1.533609</td>\\n\",\n       \"      <td>-1.380140</td>\\n\",\n       \"      <td>-0.416400</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>-0.146019</td>\\n\",\n       \"      <td>-0.599903</td>\\n\",\n       \"      <td>-0.168826</td>\\n\",\n       \"      <td>0.135178</td>\\n\",\n       \"      <td>0.607779</td>\\n\",\n       \"      <td>0.700811</td>\\n\",\n       \"      <td>-1.405137</td>\\n\",\n       \"      <td>-0.209901</td>\\n\",\n       \"      <td>-0.297132</td>\\n\",\n       \"      <td>0.071797</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL2</td>\\n\",\n       \"      <td>-1.295168</td>\\n\",\n       \"      <td>1.335794</td>\\n\",\n       \"      <td>-1.657156</td>\\n\",\n       \"      <td>-3.456876</td>\\n\",\n       \"      <td>-1.372355</td>\\n\",\n       \"      <td>-2.39925</td>\\n\",\n       \"      <td>-1.761726</td>\\n\",\n       \"      <td>-1.736894</td>\\n\",\n       \"      <td>-1.464569</td>\\n\",\n       \"      <td>-1.349594</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.026329</td>\\n\",\n       \"      <td>-0.161609</td>\\n\",\n       \"      <td>-0.542276</td>\\n\",\n       \"      <td>0.246088</td>\\n\",\n       \"      <td>1.047052</td>\\n\",\n       \"      <td>0.067110</td>\\n\",\n       \"      <td>-1.963629</td>\\n\",\n       \"      <td>-0.109732</td>\\n\",\n       \"      <td>-0.328646</td>\\n\",\n       \"      <td>0.103320</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL3</td>\\n\",\n       \"      <td>-1.514608</td>\\n\",\n       \"      <td>1.205772</td>\\n\",\n       \"      <td>-1.270560</td>\\n\",\n       \"      <td>-2.831598</td>\\n\",\n       \"      <td>-1.677628</td>\\n\",\n       \"      <td>-2.02982</td>\\n\",\n       \"      <td>-1.933016</td>\\n\",\n       \"      <td>-1.568646</td>\\n\",\n       \"      <td>-1.363735</td>\\n\",\n       \"      <td>-0.656209</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>-0.118927</td>\\n\",\n       \"      <td>-0.526747</td>\\n\",\n       \"      <td>-0.172702</td>\\n\",\n       \"      <td>0.154083</td>\\n\",\n       \"      <td>0.656889</td>\\n\",\n       \"      <td>0.607651</td>\\n\",\n       \"      <td>-1.418730</td>\\n\",\n       \"      <td>-0.193771</td>\\n\",\n       \"      <td>-0.278343</td>\\n\",\n       \"      <td>0.091769</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>3 rows × 212 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"          L(-2)_1   L(-2)_2   L(-2)_3   L(-2)_4   L(-2)_5  L(-2)_6   L(-2)_7  \\\\\\n\",\n       \"ID_name                                                                        \\n\",\n       \"MOL1    -1.499497  1.254353 -1.071701 -2.697761 -1.807236 -2.01011 -1.944547   \\n\",\n       \"MOL2    -1.295168  1.335794 -1.657156 -3.456876 -1.372355 -2.39925 -1.761726   \\n\",\n       \"MOL3    -1.514608  1.205772 -1.270560 -2.831598 -1.677628 -2.02982 -1.933016   \\n\",\n       \"\\n\",\n       \"          L(-2)_8   L(-2)_9  L(-2)_10  ...  L(-1)_93  L(-1)_94  L(-1)_95  \\\\\\n\",\n       \"ID_name                                ...                                 \\n\",\n       \"MOL1    -1.533609 -1.380140 -0.416400  ... -0.146019 -0.599903 -0.168826   \\n\",\n       \"MOL2    -1.736894 -1.464569 -1.349594  ...  0.026329 -0.161609 -0.542276   \\n\",\n       \"MOL3    -1.568646 -1.363735 -0.656209  ... -0.118927 -0.526747 -0.172702   \\n\",\n       \"\\n\",\n       \"         L(-1)_96  L(-1)_97  L(-1)_98  L(-1)_99  L(-1)_100  L(-1)_101  \\\\\\n\",\n       \"ID_name                                                                 \\n\",\n       \"MOL1     0.135178  0.607779  0.700811 -1.405137  -0.209901  -0.297132   \\n\",\n       \"MOL2     0.246088  1.047052  0.067110 -1.963629  -0.109732  -0.328646   \\n\",\n       \"MOL3     0.154083  0.656889  0.607651 -1.418730  -0.193771  -0.278343   \\n\",\n       \"\\n\",\n       \"         L(-1)_102  \\n\",\n       \"ID_name             \\n\",\n       \"MOL1      0.071797  \\n\",\n       \"MOL2      0.103320  \\n\",\n       \"MOL3      0.091769  \\n\",\n       \"\\n\",\n       \"[3 rows x 212 columns]\"\n      ]\n     },\n     \"execution_count\": 39,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"neural_descriptors.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"As an example, **-1** in the column names denotes the last layer.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 41,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"DescriptorHeatmap(bc=True, col_cluster=True, col_colors=None, col_linkage=None,\\n\",\n       \"                  figsize=(70, 10), mask=None, method='average',\\n\",\n       \"                  metric='euclidean', pivot_kws=None, row_cluster=False,\\n\",\n       \"                  row_colors=None, row_linkage=None, save=None)\"\n      ]\n     },\n     \"execution_count\": 41,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 5040x720 with 5 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.visualization import DescriptorHeatmap\\n\",\n    \"\\n\",\n    \"sorted_prop = pg['Refractive Index'].sort_values()\\n\",\n    \"sorted_desc = neural_descriptors.loc[sorted_prop.index]\\n\",\n    \"\\n\",\n    \"heatmap = DescriptorHeatmap( \\n\",\n    \"        bc=True,  # use box-cox transform \\n\",\n    \"#         save=dict(fname='heatmap_density', dpi=150, bbox_inches='tight'),  # save figure to file\\n\",\n    \"        figsize=(70, 10))\\n\",\n    \"heatmap.fit(sorted_desc)\\n\",\n    \"heatmap.draw(sorted_prop)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 6. use neural descriptors to train new models.\\n\",\n    \"\\n\",\n    \"In this case, **Random Forest** model and **Bayesian Ridge Linear** model will be trained.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 42,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# split data\\n\",\n    \"from xenonpy.datatools import Splitter\\n\",\n    \"\\n\",\n    \"y = pg['Refractive Index']\\n\",\n    \"splitter = Splitter(len(y), test_size=0.2)\\n\",\n    \"\\n\",\n    \"X_train, X_test, y_train, y_test = splitter.split(neural_descriptors, y.values.reshape(-1, 1))\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 43,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"RandomForestRegressor(bootstrap=True, criterion='mse', max_depth=None,\\n\",\n       \"                      max_features='auto', max_leaf_nodes=None,\\n\",\n       \"                      min_impurity_decrease=0.0, min_impurity_split=None,\\n\",\n       \"                      min_samples_leaf=1, min_samples_split=2,\\n\",\n       \"                      min_weight_fraction_leaf=0.0, n_estimators=100,\\n\",\n       \"                      n_jobs=None, oob_score=False, random_state=None,\\n\",\n       \"                      verbose=0, warm_start=False)\"\n      ]\n     },\n     \"execution_count\": 43,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# random forest\\n\",\n    \"from sklearn.ensemble import RandomForestRegressor\\n\",\n    \"\\n\",\n    \"rf = RandomForestRegressor(n_estimators=100)\\n\",\n    \"rf.fit(X_train, y_train.ravel())\\n\",\n    \"y_pred = rf.predict(X_test)\\n\",\n    \"y_fit_pred = rf.predict(X_train)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 44,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Missing directory and/or file name information!\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x720 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"draw(y_test.ravel(), y_pred, y_train.ravel(), y_fit_pred, prop_name='refractive index')\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 45,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"BayesianRidge(alpha_1=1e-06, alpha_2=1e-06, compute_score=False, copy_X=True,\\n\",\n       \"              fit_intercept=True, lambda_1=1e-06, lambda_2=1e-06, n_iter=300,\\n\",\n       \"              normalize=False, tol=0.001, verbose=False)\"\n      ]\n     },\n     \"execution_count\": 45,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# bayesian linear\\n\",\n    \"from sklearn.linear_model import BayesianRidge\\n\",\n    \"\\n\",\n    \"br = BayesianRidge()\\n\",\n    \"br.fit(X_train, y_train.ravel())\\n\",\n    \"y_pred = br.predict(X_test)\\n\",\n    \"y_fit_pred = br.predict(X_train)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 46,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Missing directory and/or file name information!\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x720 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"draw(y_test.ravel(), y_pred, y_train.ravel(), y_fit_pred, prop_name='refractive index')\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.4\"\n  },\n  \"pycharm\": {\n   \"stem_cell\": {\n    \"cell_type\": \"raw\",\n    \"source\": [],\n    \"metadata\": {\n     \"collapsed\": false\n    }\n   }\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 2\n}"
  },
  {
    "path": "docs/source/tutorials/7-inverse-design.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# XenonPy-iQSPR tutorial\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"This tutorial provides step by step guidance to all the essential components for running iQSPR, an inverse molecular design algorithm based on machine learning. We provide a set of in-house data and pre-trained models for demonstration purpose. We reserve all rights for using these resources outside of this tutorial. We recommend readers to have prior knowledge about python programming, use of numpy and pandas packages, building models with scikit-learn, and understanding on the fundamental functions of XenonPy (refer to the tutorial on the descriptor calculation and model building with XenonPy). For any question, please contact the developer of XenonPy.\\n\",\n    \"\\n\",\n    \"Overview - We are interested in finding molecular structures 𝑆 such that their properties 𝑌 have a high probability of falling into a target region 𝑈, i.e., we want to sample from the posterior probability 𝑝(𝑆|𝑌∈𝑈) that is proportional to 𝑝(𝑌∈𝑈|𝑆)𝑝(𝑆) by the Bayes’ theorem. 𝑝(𝑌∈𝑈|𝑆) is the likelihood function that can be derived from any machine learning models predicting 𝑌 for a given 𝑆. 𝑝(𝑆) is the prior that represents all possible candidates of S to be considered. iQSPR is a numerical implementation for this Bayesian formulation based on sequential Monte Carlo sampling, which requires a likelihood model and a prior model, to begin with.\\n\",\n    \"\\n\",\n    \"This tutorial will proceed as follow:\\n\",\n    \"1. initial setup and data preparation\\n\",\n    \"2. descriptor preparation for forward model (likelihood)\\n\",\n    \"3. forward model (likelihood) preparation\\n\",\n    \"4. `NGram` (prior) preparation\\n\",\n    \"5. a complete iQSPR run\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"'0.6.2'\"\n      ]\n     },\n     \"execution_count\": 2,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"import xenonpy\\n\",\n    \"xenonpy.__version__\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Useful functions\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"First, we import some basic libraries and functions that are not directly related to the use of iQSPR. You may look into the \\\"tools.ipynb\\\" for the content. We also pre-set a numpy random seed for reproducibility. The same seed number is used throughout this tutorial.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run tools.ipynb\\n\",\n    \"\\n\",\n    \"np.random.seed(201906)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Data preparation (in-house data)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Here is a data set that contains 16674 SMILES randomly selected from pubchem with 2 material properties, the internal energy E (kJ/mol) and the HOMO-LUMO gap (eV). The property values are obtained from single-point calculations in DFT (density functional theory) simulations, with compounds geometry optimized at the B3LYP/6-31G(d) level of theory using GAMESS. This data set is prepared by our previous developers of iQSPR. XenonPy supports pandas dataframe as the main input source. When there are mismatch in the number of data points available in each material property, i.e., there exists missing values, please simply fill in the missing values with NaN, and XenonPy will automatically handle them during model training.\\n\",\n    \"\\n\",\n    \"You can download the in-house data at https://github.com/yoshida-lab/XenonPy/releases/download/v0.4.1/iQSPR_sample_data.csv\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"Index(['SMILES', 'E', 'HOMO-LUMO gap'], dtype='object')\"\n      ]\n     },\n     \"execution_count\": 5,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>SMILES</th>\\n\",\n       \"      <th>E</th>\\n\",\n       \"      <th>HOMO-LUMO gap</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>CC(=O)OC(CC(=O)[O-])C[N+](C)(C)C</td>\\n\",\n       \"      <td>177.577</td>\\n\",\n       \"      <td>4.352512</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>CC(=O)OC(CC(=O)O)C[N+](C)(C)C</td>\\n\",\n       \"      <td>185.735</td>\\n\",\n       \"      <td>7.513497</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>C1=CC(C(C(=C1)C(=O)O)O)O</td>\\n\",\n       \"      <td>98.605</td>\\n\",\n       \"      <td>4.581348</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>CC(CN)O</td>\\n\",\n       \"      <td>83.445</td>\\n\",\n       \"      <td>8.034841</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>5</th>\\n\",\n       \"      <td>C(C(=O)COP(=O)(O)O)N</td>\\n\",\n       \"      <td>90.877</td>\\n\",\n       \"      <td>5.741310</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                             SMILES        E  HOMO-LUMO gap\\n\",\n       \"1  CC(=O)OC(CC(=O)[O-])C[N+](C)(C)C  177.577       4.352512\\n\",\n       \"2     CC(=O)OC(CC(=O)O)C[N+](C)(C)C  185.735       7.513497\\n\",\n       \"3          C1=CC(C(C(=C1)C(=O)O)O)O   98.605       4.581348\\n\",\n       \"4                           CC(CN)O   83.445       8.034841\\n\",\n       \"5              C(C(=O)COP(=O)(O)O)N   90.877       5.741310\"\n      ]\n     },\n     \"execution_count\": 5,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# load in-house data\\n\",\n    \"data = pd.read_csv(\\\"./iQSPR_sample_data.csv\\\", index_col=0)\\n\",\n    \"\\n\",\n    \"# take a look at the data\\n\",\n    \"data.columns\\n\",\n    \"data.head()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Let us visualize some statistics of the data set. We can see that the mean character length of the SMILES is around 30. This roughly corresponds to around 20 tokens in iQSPR due to the way we combine some characters into a single token to be handled during the molecule modification step. Furthermore, the data shows a clear Pareto front at the high HOMO-LUMO gap region and the lack of molecules for HOMO-LUMO gap below 3. In this tutorial, we will try to populate the region of HOMO-LUMO gap less than 3 and internal energy less than 200.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 432x288 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# check the SMILES length\\n\",\n    \"count = [len(x) for x in data['SMILES']]\\n\",\n    \"_ = plt.hist(count, bins=20)  # arguments are passed to np.histogram\\n\",\n    \"_ = plt.title('Histogram for length of SMILES strings')\\n\",\n    \"_ = plt.xlabel('SMILES length (counting characters)')\\n\",\n    \"_ = plt.ylabel('Counts')\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 360x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# check target properties: E & HOMO-LUMO gap\\n\",\n    \"_ = plt.figure(figsize=(5,5))\\n\",\n    \"_ = plt.scatter(data['E'],data['HOMO-LUMO gap'],s=15,c='b',alpha = 0.1)\\n\",\n    \"_ = plt.title('iQSPR sample data')\\n\",\n    \"_ = plt.xlabel('Internal energy')\\n\",\n    \"_ = plt.ylabel('HOMO-LUMO gap')\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"A complete iQSPR run may take a very long time. For practical purposes, the full design process can be separately done in multiple steps, and we recommend taking advantage of parallel computing if possible. To save time in this tutorial, we will extract only a subset of the full in-house data set for demonstration. You will see that the subset represents the full data set in our target property space well. Readers can try to repeat this tutorial with the full data set if sufficient computing resource is available.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {\n    \"scrolled\": true\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"   index                               SMILES        E  HOMO-LUMO gap\\n\",\n      \"0  23630            CC(C)CN1CC(C1)C2=CC=CC=C2  193.542       5.914093\\n\",\n      \"1  19222               C1=CC(=CN=C1)C(=O)OCCO  110.998       5.186226\\n\",\n      \"2  20189  C1=CC(=CC=C1CC(C(=O)O)N)N(CCCl)CCCl  202.960       5.400097\\n\",\n      \"3   7775                    CCCCCC(=O)OCC(C)C  191.230       7.727368\\n\",\n      \"4  11881         C1=CC(=C(C=C1O)C(=O)O)C(=O)O   91.482       4.856441\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 360x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"np.random.seed(201903) # fix the random seed\\n\",\n    \"\\n\",\n    \"# extract a subset from the full data set\\n\",\n    \"data_ss = data.sample(3000).reset_index()\\n\",\n    \"print(data_ss.head())\\n\",\n    \"\\n\",\n    \"# check target properties: E & HOMO-LUMO gap\\n\",\n    \"_ = plt.figure(figsize=(5,5))\\n\",\n    \"_ = plt.scatter(data['E'],data['HOMO-LUMO gap'],s=15,c='b',alpha = 0.1,label=\\\"full data\\\")\\n\",\n    \"_ = plt.scatter(data_ss['E'],data_ss['HOMO-LUMO gap'],s=15,c='r',alpha = 0.1,label=\\\"subset\\\")\\n\",\n    \"_ = plt.legend(loc='upper right')\\n\",\n    \"_ = plt.title('iQSPR sample data')\\n\",\n    \"_ = plt.xlabel('Internal energy')\\n\",\n    \"_ = plt.ylabel('HOMO-LUMO gap')\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Descriptor and forward model preparation\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"XenonPy provides out-of-the-box fingerprint calculators. We currently support all fingerprints and descriptors in the RDKit (Mordred will be added soon). In this tutorial, we only use the ECFP + MACCS in RDKit. You may combine as many descriptors as you need. We currently support `input_type` to be 'smiles' or 'mols' (the RDKit internal mol format) and some of the basic options in RDKit fingerprints. The output will be a pandas dataframe that is supported scikit-learn when building forward model with various machine learning methods.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.descriptor import Fingerprints\\n\",\n    \"\\n\",\n    \"RDKit_FPs = Fingerprints(featurizers=['ECFP', 'MACCS'], input_type='smiles')\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"To get the calculated fingerprints, simply use the transform function. The column names are pre-defined in XenonPy.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"   maccs:0  maccs:1  maccs:2  maccs:3  maccs:4  maccs:5  maccs:6  maccs:7  \\\\\\n\",\n      \"0        0        0        0        0        0        0        0        0   \\n\",\n      \"1        0        0        0        0        0        0        0        0   \\n\",\n      \"2        0        0        0        0        0        0        0        0   \\n\",\n      \"3        0        0        0        0        0        0        0        0   \\n\",\n      \"4        0        0        0        0        0        0        0        0   \\n\",\n      \"\\n\",\n      \"   maccs:8  maccs:9  ...  ecfp6:2038  ecfp6:2039  ecfp6:2040  ecfp6:2041  \\\\\\n\",\n      \"0        1        0  ...           0           0           0           0   \\n\",\n      \"1        0        0  ...           0           0           0           0   \\n\",\n      \"2        0        0  ...           0           0           0           0   \\n\",\n      \"3        0        0  ...           0           0           0           0   \\n\",\n      \"4        0        0  ...           0           0           0           0   \\n\",\n      \"\\n\",\n      \"   ecfp6:2042  ecfp6:2043  ecfp6:2044  ecfp6:2045  ecfp6:2046  ecfp6:2047  \\n\",\n      \"0           0           0           0           0           0           0  \\n\",\n      \"1           0           0           0           0           0           0  \\n\",\n      \"2           0           0           0           0           0           0  \\n\",\n      \"3           0           0           0           0           0           0  \\n\",\n      \"4           0           0           0           0           0           0  \\n\",\n      \"\\n\",\n      \"[5 rows x 2215 columns]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"tmp_FPs = RDKit_FPs.transform(data_ss['SMILES'])\\n\",\n    \"print(tmp_FPs.head())\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"XenonPy also allows users to flexibly organize the desired descriptors. The first step is to import `BaseDescriptor` and all necessary descriptors (fingerprints) supported by XenonPy, which will be used to construct a customized set of descriptors for forward prediction. Then, users can simply pack all descriptors needed in the `BaseDescriptor`. For other descriptors, users can use the `BaseFeaturizer` class to construct for their own needs. If so, we would appreciate very much if you could share the code as a contribution to this project: https://github.com/yoshida-lab/XenonPy/tree/master/xenonpy/contrib. \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# XenonPy descriptor calculation library\\n\",\n    \"from xenonpy.descriptor.base import BaseDescriptor\\n\",\n    \"from xenonpy.descriptor import ECFP, MACCS\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Defining your own `BaseDescriptor` allows you to customize the options for each fingerprint you wanted. You may combine multiple descriptors by adding more \\\"self.XXX\\\" in the `BaseDescriptor`. All descriptors with the same name \\\"XXX\\\" will be concatenated as one long descriptor. \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 13,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# prepare descriptor function from XenonPy (possible to combine multiple descriptors)\\n\",\n    \"class RDKitDesc(BaseDescriptor):\\n\",\n    \"    def __init__(self, n_jobs=-1, on_errors='nan'):\\n\",\n    \"        super().__init__()\\n\",\n    \"        self.n_jobs = n_jobs\\n\",\n    \"\\n\",\n    \"        self.rdkit_fp = ECFP(n_jobs, on_errors=on_errors, input_type='smiles')\\n\",\n    \"        self.rdkit_fp = MACCS(n_jobs, on_errors=on_errors, input_type='smiles')\\n\",\n    \"\\n\",\n    \"ECFP_plus_MACCS = RDKitDesc()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"   ecfp6:0  ecfp6:1  ecfp6:2  ecfp6:3  ecfp6:4  ecfp6:5  ecfp6:6  ecfp6:7  \\\\\\n\",\n      \"0        0        1        0        0        0        0        0        0   \\n\",\n      \"1        0        0        0        0        0        0        0        0   \\n\",\n      \"2        0        1        0        0        0        0        0        0   \\n\",\n      \"3        0        1        0        0        0        0        0        0   \\n\",\n      \"4        0        0        0        0        0        0        0        0   \\n\",\n      \"\\n\",\n      \"   ecfp6:8  ecfp6:9  ...  maccs:157  maccs:158  maccs:159  maccs:160  \\\\\\n\",\n      \"0        0        0  ...          0          1          0          1   \\n\",\n      \"1        0        0  ...          1          0          1          0   \\n\",\n      \"2        0        0  ...          1          1          1          0   \\n\",\n      \"3        0        0  ...          1          0          1          1   \\n\",\n      \"4        0        0  ...          1          0          1          0   \\n\",\n      \"\\n\",\n      \"   maccs:161  maccs:162  maccs:163  maccs:164  maccs:165  maccs:166  \\n\",\n      \"0          1          1          1          0          1          0  \\n\",\n      \"1          1          1          1          1          1          0  \\n\",\n      \"2          1          1          1          1          1          0  \\n\",\n      \"3          0          0          0          1          0          0  \\n\",\n      \"4          0          1          1          1          1          0  \\n\",\n      \"\\n\",\n      \"[5 rows x 2215 columns]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"tmp_FPs = ECFP_plus_MACCS.transform(data_ss['SMILES'])\\n\",\n    \"print(tmp_FPs.head())\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### train forward models inside XenonPy\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 1-2min to complete!</span>**\\n\",\n    \"\\n\",\n    \"The prepared descriptor class will be added to the forward model class used in iQSPR. The forward model calculates the likelihood value for a given molecule. iQSPR provides a Gaussian likelihood template, but users can also write their own BaseLogLikelihood class. To prepare the Gaussian likelihood, iQSPR provides two options:\\n\",\n    \"1. use the default setting - Bayesian linear model\\n\",\n    \"2. use your own pre-trained model that output mean and standard deviation.\\n\",\n    \"\\n\",\n    \"Here, we start with the first option. Note that there are a few ways to set the target region of the properties.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 29.6 s, sys: 363 ms, total: 30 s\\n\",\n      \"Wall time: 30.9 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# Forward model template in XenonPy-iQSPR \\n\",\n    \"from xenonpy.inverse.iqspr import GaussianLogLikelihood\\n\",\n    \"\\n\",\n    \"# write down list of property name(s) for forward models and decide the target region\\n\",\n    \"# (they will be used as a key in whole iQSPR run)\\n\",\n    \"prop = ['E','HOMO-LUMO gap']\\n\",\n    \"target_range = {'E': (0,200), 'HOMO-LUMO gap': (-np.inf, 3)}\\n\",\n    \"\\n\",\n    \"# import descriptor class to iQSPR and set the target of region of the properties\\n\",\n    \"prd_mdls = GaussianLogLikelihood(descriptor=RDKit_FPs, targets = target_range)\\n\",\n    \"\\n\",\n    \"# train forward models inside iQSPR\\n\",\n    \"prd_mdls.fit(data_ss['SMILES'], data_ss[prop])\\n\",\n    \"\\n\",\n    \"# target region can also be updated afterward\\n\",\n    \"prd_mdls.update_targets(reset=True,**target_range)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"The variable directly contains models for each property trained this way. Note that the input of these models is the preset descriptor (RDKit_FPs in this case).\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"BayesianRidge(compute_score=True)\"\n      ]\n     },\n     \"execution_count\": 16,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"prd_mdls['E']\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"The variable can be also used for prediction directly from mol/smiles, where the output is a dataframe.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 17,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"      E: mean     E: std  HOMO-LUMO gap: mean  HOMO-LUMO gap: std\\n\",\n      \"0  216.536505  30.798743             6.448873            0.665549\\n\",\n      \"1  149.048033  30.669020             5.069425            0.662847\\n\",\n      \"2  196.936252  29.520508             5.396384            0.642558\\n\",\n      \"3  223.675992  29.193763             7.784497            0.634831\\n\",\n      \"4   87.747905  30.040543             4.707319            0.648994\\n\",\n      \"CPU times: user 3.77 s, sys: 137 ms, total: 3.9 s\\n\",\n      \"Wall time: 4.84 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"pred = prd_mdls.predict(data_ss['SMILES'])\\n\",\n    \"print(pred.head())\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Let us take a look at the distribution of the likelihood values for all the molecules in our data as a validation. Note that directly calling the object is equivalent to calling the `log_likelihood` function. The output will be a pandas dataframe with properties on the columns. To get the final log-likelihood, you can simply sum over the columns. You will see that all molecules have a small likelihood because they are far from our target region. Note that when setting the target region for the likelihood calculation, \\\"np.inf\\\" is supported. Also, we use only log-likelihood in iQSPR to avoid numerial issue.\\n\",\n    \"\\n\",\n    \"Note that we can also update the target region when calling the `log_likelihood` function, but this will automatically overwrite the existing target region!\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"          E  HOMO-LUMO gap\\n\",\n      \"0 -1.218542     -16.024975\\n\",\n      \"1 -0.049529      -7.015274\\n\",\n      \"2 -0.613727      -9.251676\\n\",\n      \"3 -1.566933     -31.356100\\n\",\n      \"4 -0.001840      -5.458423\\n\",\n      \"CPU times: user 3.71 s, sys: 120 ms, total: 3.83 s\\n\",\n      \"Wall time: 4.76 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# calculate log-likelihood for a given target property region\\n\",\n    \"tmp_ll = prd_mdls(data_ss['SMILES'], **target_range)\\n\",\n    \"print(tmp_ll.head())\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 19,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 576x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 576x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# plot histogram of log-likelihood values\\n\",\n    \"tmp = tmp_ll.sum(axis = 1, skipna = True)\\n\",\n    \"\\n\",\n    \"_ = plt.figure(figsize=(8,5))\\n\",\n    \"_ = plt.hist(tmp, bins=50)\\n\",\n    \"_ = plt.title('ln(likelihood) for SMILES in the data subset')\\n\",\n    \"_ = plt.xlabel('ln(likelihood)')\\n\",\n    \"_ = plt.ylabel('Counts')\\n\",\n    \"_ = plt.show()\\n\",\n    \"\\n\",\n    \"# plot histogram of likelihood values\\n\",\n    \"_ = plt.figure(figsize=(8,5))\\n\",\n    \"_ = plt.hist(np.exp(tmp), bins=50)\\n\",\n    \"_ = plt.title('Likelihood for SMILES in the data subset')\\n\",\n    \"_ = plt.xlabel('Likelihood')\\n\",\n    \"_ = plt.ylabel('Counts')\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 20,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"iVBORw0KGgoAAAANSUhEUgAAAW8AAAFNCAYAAADPWO4pAAAAOXRFWHRTb2Z0d2FyZQBNYXRwbG90bGliIHZlcnNpb24zLjMuMiwgaHR0cHM6Ly9tYXRwbG90bGliLm9yZy8vihELAAAACXBIWXMAAAsTAAALEwEAmpwYAADQ+klEQVR4nOz9eZRdZ3Xmj3/2+557ay6VVKpB82xJ1uR5tsEG4jA4JNhpaPxt6CSQDguHDt0NpDP80g10FiHpkG5IWAnfpJNOSNIECHwNHWMMGPA8S5as0bLmoUoqVZVqvOe87/79sc8tVUklVZUs2ZJ8n7W0pFLde+65596z3/3u/eznEVVVKqigggoquKjgXu8TqKCCCiqoYOqoBO8KKqiggosQleBdQQUVVHARohK8K6igggouQlSCdwUVVFDBRYhK8K6gggoquAhRCd4VjMG+fftYuXIl7373u0f+/NzP/Rxf//rXJ3zub/7mb/KXf/mXU3q95cuX09XVdbane9Z44IEH+Df/5t9M+LgvfelLPPTQQ6/BGVVQwdSQvN4nUMGFh+rqar797W+P/Hz48GHe9a53sXr1alasWPE6ntlrjyeffJKlS5e+3qdRQQWnoBK8K5gQbW1tLFiwgF27dvHSSy/xve99jz//8z8H4Jvf/OaYn5999lm+973v0dfXx80338ynPvUpkiRh/fr1fPazn2VwcJBCocAnP/lJbrzxRgC++MUvsn79erq7u/mVX/kV7r33XgD+6Z/+iX/4h38gxkhTUxO/+7u/y5IlS/jN3/xNqqur2bZtG0ePHuWOO+6gqamJH/3oR3R2dvLZz3525Nij8T/+x//g/vvvp6mpiQULFoz8/yuvvMKnP/1p+vv76ezsZMWKFfzJn/wJX//619m4cSOf//zn8d6zdOnScR9XVVV1vj+CCio4BZWySQUT4vnnn2fPnj2sW7duwsceOnSIv/7rv+Zb3/oWW7Zs4Wtf+xppmvLRj36Uj370o3znO9/hM5/5DL//+79PjBGAefPm8c1vfpMvfelLfO5znyNNU5566im+9a1v8dWvfpVvfetbfOhDH+K+++4beZ2XXnqJv/mbv+Hv/u7v+Ku/+itqa2v5x3/8Rz7wgQ/wla985ZTzeuihh3jwwQf51re+xT/+4z/S19c38ruvfe1r/PzP/zxf+9rXePDBB9m3bx8PP/ww9957L6tXr+aTn/wkb3vb2077uAoqeD1QybwrOAVDQ0O8+93vBiCEwPTp0/nDP/xDZs2aNeFz3/3ud1NbWwvAz/3cz/HjH/+YdevW4ZzjzW9+MwCrV6/m/vvvH3nOu971LgBWrlxJqVSir6+Phx9+mN27d/O+971v5HG9vb10d3cDcPvtt1MoFGhpaaG2tpZbb70VgPnz5488ZjQef/xx3va2t1FfXw/A3Xffzd/+7d8C8IlPfIJHH32Ur3zlK+zatYuOjg4GBgZOOcZkH1dBBa8FKsG7glNwcs17NESE0XI4aZqO+b33fuTfqkqSJHjvEZExj9u2bRuLFy8GIEmSkWOXnxdj5N3vfjef+MQnAIgx0tHRwbRp0wAoFotjjlc+xpkw+rxHn+d/+A//gRACb3/723nzm9/MwYMHGU/yZ7KPq6CC1wKVskkFU8KMGTPYvn07w8PDpGnK9773vTG//+53v0upVGJ4eJh//ud/5rbbbmPx4sWICI8++igAmzZt4oMf/OBI2WQ83HLLLXz3u9+lo6MDgH/4h3/ggx/84Fmf92233cYDDzxAb28vMcYxi9MjjzzCRz/6Ud7xjncAsH79ekIIgAX5LMsmfFwFFbzWqGTeFUwJN998M9deey1vf/vbaWlp4frrr2fr1q0jv587dy7vf//76e/v521vexu/8Au/gIjwxS9+kd///d/n85//PIVCgS9+8YunZM+jccstt/DhD3+YX/7lX0ZEqK+v50tf+tIpGfxk8aY3vYmtW7dy991309jYyIoVKzh27BgAH//4x/noRz9KbW0t9fX1XHvttezZsweAO+64gz/+4z8mTdMzPq6CCl5rSEUStoIKKqjg4kOlbFJBBRVUcBGiErwrqKCCCi5CVIJ3BRVUUMFFiErwrqCCCiq4CFEJ3hVUUEEFFyEqwbuCCip4QyMOXZyEuwuWKnjsWD8xTu7UmpvrOXq0b+IHXsCovIcLA5X3cGFgsu/BOWH69LpX/Xp93xwm9k8+FLo6of49r68g2QU7pBOjTjp4lx9/saPyHi4MVN7DhYHX8j3EAUX7phBvzm5W7Jzigg3eFVRQQQWvGQR0CgH5LAd9zykqNe8KKqiggosQlcy7ggoqeMND8z9TefzrjUrmXUEFFVRwEaISvCuooIIKLkJUyiYVVFDBGx5xYZwa37v69e9YVoJ3BRVU8IaH2+VgClRBVy9w83k8oUmgErwvYAwAx50wPSqnty2ooIIKXi10ilTBqTz2fKFS876AsTFxPJ84droL4JtSQQWXMPQs/rzeqATvCxg1qniF6tf7RF4HDAODr/dJVFDBBYxK2eQCxqqgLAmBmtf7RF5jDANPJp5M4Nos0HAhpDkVVHCBoRK8L2A4oPb1PonXARHIBIJAxZu9gtcEkv+ZyuNfZ1SC9xTQI3BUhNlR3xCljD7gFS/MijDzNRSfrAGuywIZ0FTJuiuoYFxUgvcUsN57BhxkWeSyS0C1bSLs9sJ+7+gRuCV7bXPg+gv08mZUbppLERW2ySWO9hgpRpiRB5ZegYcSx2Pekb2+p3ZeMCsq06KyMMbX+1QuCGz2wk8Kno4LQVKugnOKi5FtUkkipoDLorIshpFyV6cI6wuOgNA2rCy5xLLxGQo3ZpXAXcZRcZTEFu3WS+ujruAiRCV4TxGjc67ZUVmURaK4C3abX8G5wxUh0B2F1ktska6ASsPyjYYa4OfTSErktTJEOiYQEJpVL4TvzymIwF4nFLGyy6WEeoX6C9M1sII3ICrB+1XCwWsWuPuBZxNPxPjP089xHNnmhCNOmBMju51nXowsmmIA7hJhi3c44DiRVGBJeGOwcyqo4LVEJXhfRCgANWqMh+I5DtwB2OsdqcAAjuhgN45FcWoskzpVGvNdwS7viAINGpl/iWXhFVxauBjZJpXgfQGhHxgWmK5WUgvAYSfUqDJdoQhcnwUUC+TnEh5YlUW6HLQH5bATWs4i3tYAN+RNzm1O6HbCjFGBexA794v5i7fXCdudY2WIzKqUUSp4nXAx30OvGXoFtnvHnKC0n4ObVYEOEQRozY+XYSWRAYH6qIhAe1S2eUcVcEsaKDL+B5ZyboJ5uyrteaI941VkyuWkZHlUGHWcgyI8XPBM18jPpPGi5akedELm4BDCrGxy1ykChxw0xTfm1OyFjkrmfYlirxM6nTCA0JwFUl7dDdgrsL7gEIUbcu0OBxRQQDjsHXUozWq14gbVUz6oThF2e6GgSqdzLAlTr09PFoPANu+YpsrCV/Eah5zwihcOqefmNNJw7k7xNcXyENmkjjadPI3y6cTxcNEzJ4v8P6XK0P+FBpkXkeHJf7elamrR+/777+fLX/4yWZbxwQ9+kHvvvXfM73fu3Mnv/d7v0dPTQ0tLC3/8x3/MtGnTznjMSvCeBOZFZUiU2UF5NnH0ibAui7ScZRZeVKiJ4NGR2rUDrskiJaBPhB6BhVFZGgKOU6epXvZCjxO6VWgUOObkVQXvHrFx+AbAqS1O5dc86oQDXuhUYU4MZ53lL46RVZljGvGiFttKEXqdsAXPzBgmpbWeAqpQmmLGtsMJR52wKsQKHfU8Qvc6dApmDFovcMPkHnv48GG+8IUv8M1vfpNiscj73vc+rr/+epYuXWrHUuUjH/kIv/3bv81tt93GH/3RH/EXf/EXfOITnzjjcSvBexJoVLg6i2TAdmyaMhWmPGZVwmrLNcBN+bi5H/X7Qv6nTpW2CY69JCi7gTUhEkRofhWBu1vgRwXPTu+YFq00dNkoCYAZUWmLyvSor6o8M03hnWk27mJ0vlHK/54o0A4AzySOxqgsi+PTMauwHVGN6sjnZ3um0+OGLDInRpqnMPOUAbvzJvKRKBWa4gWIgwcPEsLYnVRjYyONjY0jPz/22GPccMMNNDU1AXDnnXfywAMPcN999wGwadMmamtrue222wD4tV/7NXp7eyd87UrwPg2OipABLap0C1Tn2ehVWWBIhBlTvJF6BJ5LPDWqXJPFKV/4QyIEMe60y8+rpVxvfZU3tcdqsqgS8tnfITnxuj8teOaGyNyoDPPqqJGvxxduEHg6sTB7bXZmid0uoNMJx0RYEMO477VB4aY04LFFaL139IhwVQinzY4TYNEUh1UTrETTJVQGg14DnM0Vvvfee9m/f/+Y/7vvvvv49V//9ZGfOzo6aGlpGfm5tbWVDRs2jPy8Z88eZs6cyW/91m+xefNmFi9ezO/+7u9O+NqV4D0O+oHnE0cA5ofIHu+oUbg5C9RzdoMagyIMA0GElKld+D5gQ2K5ao0GmtTq5rV6aibZK3BMhJlRURhZaMqZbpfAVu+YG5V5eUCIGAXx8ky5Nl+cBDgO/H9Fx4uJY5GDQQeKsDqLtF1EWWCQE+WKMMGOqQWYFyKNeuZFqnzdS8ARJ2QCvechO54blbnn9IgVjIuznLD86le/Om7mPRoxRmSUHo6qjvk5yzKeeuop/u7v/o41a9bwJ3/yJ3zuc5/jc5/73BlPoRK8x0ERC9AlhJpRzcRX02BuicoaIlW5M84xsdp33TiPLWFb5nJTtApoUiXFguxeJ2z1jiZVrhulPaLA896z2Ttq0BHvy3Uhjkw7HnRWK88Q5uUc7gwhAQpiNe99XjgkQr1GZiq0xsjKEAkIR3PGyLossOICzAYf8bZM3RJOXJd6hWvyMtVEdeMqYHWY/PsqAquzSL/YZ1zBRYyzuMFnzZo14WPa29t55plnRn7u7OyktbV15OeWlhYWLFjAmjVrAHjXu97Fxz72sQmPWwne46AAXJdFFCspzMwCRT21TtuHbbHbok7IPvHAnPzm7hTh+cRRrVb7Hv0hpNgWf1jg6iwwTe18rs0i3QIvJg6fF1jdSbFCgOmqDAs0qpKKBftk1OMWBKVEZF4e2xTyUo413hxwGCvzLAgwK0auyKx52ifwonN0e+GIc5AH/z6MSTKZJmQpf43JfvF6BQ6IMFd1wsC7zcPf1lhVvnVwmMtGJUTnUxe8TfXCkJmr4KwxVaXAqTz2pptu4otf/CJdXV3U1NTw4IMP8pnPfGbk91deeSVdXV1s2bKFFStW8MMf/pBVq1ZNeNxK8D4JAQuCowP16YLGlsRxxAm9QVkXJl/QTLBGVzmbPy4nXjdizdBMLCMuf00EOOCELifUR7gxDVSPc15rQmRujAyJ0BSV42IN1zKOOOGoc0zPs+rtTtjtHUtzquFBJwQn1KoF7NEBuVHhmhA5rML0UeWBbYmjwwkFoBXbGbSqnhIwjws8M07d/5AIB72wbBxGxTZv13g4KusmUDicHqA5/xymT5GN97KDIRy3Te1pFVQwIdra2vj4xz/OBz7wAdI05Z577mHt2rV8+MMf5mMf+xhr1qzhT//0T/md3/kdBgcHaW9v5/Of//yEx60E71EYwAZlCihXZ3FCZkVLVPY4Ybt3NKpOmqo3XS34lo//rPdUAYuc0B6Va9JAKqdmi/OjkokyK+hpfR0DUKUwQ5WjIjxVcDREM1PwQGde/+3Nt4iDeQ3+eP5zQ1QaIkzT8fVIqvLzGAS2OqFFjYnSjdAO7HTCnsRxKMJtJxk4DCOUABUhYAtkCmzxjiEHtVFYrsoQRpecrsrsqAwgtE+ilNEC/JfBFJiYVTIaR4F/riqQAXOApik8t4JLA+cz8wa46667uOuuu8b831e+8pWRf69bt46vf/3rUzpmJXiPwpDAgIDDmosTBe8FUekNkYPesc9NTQekXGZRoBFrLvZjtL2m03yTGpQzZp8KvJA4ukSYHyJHnLDBO2Y45foMXnbCC4lnZrTgv83Z4/Y4x27nWBqsIXtrFgjAi970q1dnkWos0G72joiSKOxLHIfzID0nBlqAHQibnHDVOAYOzWqLYhGlCtjgLWNvjkp9hNl5Nv98YuyN5fluYPZJ1zWS67uMcw2mErTLqAFmxMiACGcei6igggsHleA9CtMV1oaIV6if5HMWB6WgcWTMvYzJ2mUJcEUWCcAPvGM3cHM6PkVtPPRhZZaywuAw1pR8wXuiQA8wP1jN/VA+KVoCCji8gGSRXd7RL8KiGEeadZu88MOiY15QFohQrVaC2eIdu7ywOgvURZh3UpDudcqCk8oto9/raC/M43l5aJoqUW0HsibYe/cy/vXLgK8VPUed8IuljPZz4BVRC/w/w4EItDZA56s4VsTYPjU6cR+kggsIFT3vixvC5DWo+4B9TpilyvKodIhwWKx5dUiETYljToiTYmSUXeJrgNp8FP6ICH1iVLEEy6qPjeKbgwXqZwqeksDVaaRZlauyiCjExLEfoQmlDiVgWfuAQHO05x711my9LCg9oiMLQAQ6nWN6tDJKnSoRq3m3xEifOGpUuDUL9Aj8JPHMjpFa4Jg4BkSYe5pdSAp0i9CoVsPuzzPvRxJPyUFnFNZmkSGBulGXrg847oTaqBx2jgGBbhztnBunn7PJ2MfDXmeSuHV5M/pi1W95w6ESvC9eKBaMI1bTneizeSU35+2NyooQ2VCw2/SGNHBMLBsezcgY/TplD8TRXOkGLON2WN36ucQm65LMhmMOOuFF76jNg0J5QCRRe3yvKC96T7NGrgmRJVHZ6IQfV3l2iNAVIq1RuTONpMCPCx5RGHDCHWlgeFSwdFippN3BtKg8UfA0qXJlFrk1swWpNueOHxZhyMEeHOsw6mN1VKadZs3a7oXdztGeH68+X9zWhEBnFObni9XJjcsNiaPXCUuzyD2llB4cSy9Ab80EcAKFC9Qso4Lxcb5r3ucDleCdo1esngvQpGFM8AnAei8MC1yT2Yh4e7T69JyoVCkjQahKYZEqNZllwp0i7PHC0hCZpqNEqYDr0zCGCVL+MIawhaRf4CpVMsCPwzc3CmHgqMDDxYTDAquDY3kItKlyGKEpWq15n8CPqhK8KneVAocFXs6HddpRCid9G9tUaQuw31n9vxdb2BKgSpXnEk9LjCwOSgiRmbla3nWpSdaermRQpVbCqTqpzNSsdp6nwzRVelV42TuaVVl7FlOqrwVmR6UxZwJVgvfFg0rwvohRq8aRNt7z2N/1CjxcSCiJMjMGlkXNx9NPZNXX543E8ja5rL63KTFN64IKa4MFeo0WwEYbKqRYRj5NlUxgriqZwqOJ55gT3plm3JjXwkcHhSpsanO/QK845oaUV5xQElgWIs0aOYrwihO2eKFRhSMSR/jjOxLH5eH0QlHtUUmJY3Q8esSO3+EcK0Ng1SgmyERc78VRCUQGxdg9k60LXx7s2r+QeI6KMCDn3pDiXEDgtEygCio4l3jDBe8SVtMt0+C6BfY4YWFUrj0Nk6NerfY8JONzvjU/To2eGryWBGVTzuMeAvpFRgZsslGPewlYn5woJ1yVRoaBb1R5+kR4WRy3EukRm6KcqZFVweiAu53QrrA8BhpU2ZR4FJgdI3Oi0usgcdZ0VFU2JiYhqwhNeuYMdgh4Jd+R1KeBOvJhoyzSOCqgR+w9ToTICceeRh1fxjZgQ0INeoLxI0CLwtKcx91YCZAVnEtUat4XNlLgqcSTio1LNyjs8I5OJwSxoDkeCsDPlTJKMn5WVa5HF1RpAKZHZWkelFpUceo47G3cvDkPeLu9UBLP0hARGGFYhKg8nDjao7IiKneWAru9sCav7/aKMOygQy3r3eWFPicsCpHVeWlmKERKOYsDjILXGZUlCPu8o89FCsHc0Ld4x2bvWHuaIaPR28ny30UYE3RLwLOJowFYwpmzbw8syGmMp5PU3e6EXd4xO+qY83LAkkk2lAcnOI8KKrjY8YYI3uUhlKJaIzHIiax3frCa8rwJhkCqYdyJRrCmoQeGndCPUcXmj9J5nh0j+zEtkiaFK9PA8YInBTZ5R1FgFXBjKXB/0fGDYoGWqPz6QInl0dgsZbRHJYzKeltiZL841oQ4MtSz9KQAN03h1izyolNmR5gbbSexN2/QDpwhi6gHrivrgpzmMcMCfU5w+b9PLjudjKVRaVRj1Iwux4xcT0DE9M7PBn9X9DxW8NwzFLgjTHHUsoI3JPzcCFMwY/BTNGM4H7jkg/cw8O2iZ58XbitFrs2dcMq0uBqUNZmOKxA1WbSqclMaOC7wQCFhOjqGIrYkKo7Ik0lCm0Zc3sxqiMpcVXZ7RxuWwR5yjmMoIsqGgmdGahKmEVuAymPrZRx2jioROpxQzCcjy4tGmh+zDugXOJK7us/OpU4XRqVRIw0TKOHVq73+ERGKOcukjhM7xwaFtWmkGWusToRBjD2SAlVEXsmbojdnkSJWF29LA7VnWRp52QuDAi97uKMSuyuYBMJ+R+ifwheuTuDa83c+k8F5Dd7f/va3+Yu/+AsAbrvtNj71qU+dz5cbF6lY3TYVIWOsuFGPmAhUAWN+jDcOPlnUAn0IbWpslNGyr8fEBP5f8YJkwtwYqcXElpZEZXEMzABeEMvgl4RIHcJhJyMBck+uJNiSc7nLqFelU4U+hGcSYU5eaghYKeN47vpTO04Wa/VsY6SMzu4HYcQ4uDwsdCif1jwsYmYN+fSj5texSZVZTG7ApYg9vg9hQJWfFhKT342RJdHKI6+m6fdvBzM2FjzXpZXIXcHkUGGbjMLg4CD/7b/9Nx544AEaGxv51//6X/PYY49x0003na+XHBf1Cm9PI31ZHNGvLmNEgOoc0bpmqrI6RLM5G/X/1QptEeo1clWuhT0YT5gCBOAxYGvOp65Sc69ZEeLIgiJYKUFGlab7sUy9ChuxH0QIWBOzQZVeEbYlxnS5NVOuy3nk5dc9lltsHRdhSTyhbvhSLjQ1P8QRJklBy18W5ThQ9vnY40witl/gV5ncF8pjzkTlJudlWWBYhLZzRNteACyoBO4KpoBK8B6FEAIxRgYHB6mtrSXLMqqqXo0Hy9mjRZUWPTEgU8Rqz41qGbdjcu4wEdiVZ8MLojIgMIAwMy8llLAJOw80ZSfKF7WYXsjohnbtSccdwoL8vGDGwy0nyczOj0pVGugW4XjeOPVYvT2KjekvCIHnC57DDq7MIktipCs6tnvHEMINIYzUxRVT8zsiwnUnydI2ROWYyJhdSkteGjoswtMFxzHnSKNxursEPMIhmLRxgGDn74FfSM9N1O7HFp5pZ7Awq6CCcVFhm5xAfX09//7f/3ve/va3U1NTw7XXXstVV111vl5uUjgqwnOJo8gJ/ZCp1LoPOXg0cTQB09PAC94zKGZ2MDsP5r25C83gSTzkM41JFzEv0wNZZEY+mbfPCT/ythCsziJHnGNr/vPTwJ2p6alcn1kArSYXa1JryBZQVCXPxgV1SncUmvL6dsDGzdtGaXAELJguizquBVht/qdOlS2JI8FxdRb5hVJGL8JlGHf7dNjlhD3OsSoEmkddm0Fs8Xy1o+RHc8nc7jNYmFVQwaWC8xa8t2zZwje+8Q1+9KMf0dDQwH/6T/+Jv/zLv+RDH/rQpJ7f3DxZaShDS0vDhI+pBvZjAWgWnMJymAgv5X83AoswKdFuLNtszv8UsEV5IRMvzkexQDwbWAs0zrT3PAzsBrZiVmTb83MPWMbcjhkmjCfX/g6s3l6HlWJW5Oc7BysnjNbweAu5cBWwDdgLXJEfn/y1t+XPLf/fTIx18mx+rMb8+WXUneFzeBG7Phkm3wrwCnZd5+Sv/WpQh12faUx+BzAeJvNdutBReQ+XPs5b8H7kkUe48cYbaW5uBuA973kPf//3fz/p4H30aB9xkpzelpYGOjqPs8ULA2Iei6fLulZhGV7XJI7bjzEX2qKNi9c6YY5zrAiRY6oswgJlxBp1ijUAD4mwSY0OtyzX6iB/XHnEfAj4biFhmxcuD5FVTbVsONrHbudYEQJNTljiHE8njk1e0Ki0R7guRFpUmRGV/VHpEWG7E54oOGbEyM+lkRkKHUCTgIjQJcKzIhzQSHtujbZfhLlRacQWoM2JZ8jB9izi8+u+2Qm7E8euUdrcAdMDny9CEShFHWlStrQ00Nl5/LTXc45Y2aph1HP2eOGYd6RRmTOB2cJksCD/+2yVASd6DxcD3kjvwTmZcqI3HlTsz1Qe/3rjvAXvFStW8Id/+IcMDAxQU1PDD3/4wxGPtvMB0wNxZFjpojwAUsp/bsrV+qbyhvc4G2rZ7WBFsIbnghhGMuqTa+VHBR4seHZ7sypbFSItpcDMXJXvuZz9cVUuLAVKnxMG1RaBvU7ocbBLhQaFq7JIlxN6ELq9o1Mii0qRVXlwXe8du5zwROJ4uuBpUKWajHelgacSjwOuTgN7Co79TjiIp1Zhu7OSyZos8oslq/lfEQJHozB71II5W5WeqMwd9X/lAZo5MbJmkl6Pw/l7a1JOUVlcEoyu2BRPfF47c0u1JlXq9NLmswbs2iTY5OoFEBMquEhw3u6LW265hZdeeon3vOc9FAoF1qxZw6/+6q+er5ejBlgZIkPYTd+Vy6du944D+QTiVAxzjwOPFjz7PSxLTQNEsnjKAEwZw8CGxDMkwrRodl4tqjTmi8gQFry7gNYorArKghjpDI6aCD/AlOgWZcpOLxwUoS6ak0ytRnYjTI86huNdQKkRYXWwmngBc7UpI8My/eVZYG8hoduBqCLi6BUhURnpmk9T87IsYB6bP048DWoqgpPVHxnCgu/J8qr7nbAzcSQKb84bxGn+J+Syt2UcdcIriVESZ0Zl/klTlpcajolRQJ3AtDSMoUgOAj05ZfNcSdZWcBpMMfO+EFbZ85rU/Oqv/up5DdgnoxwEDovwQmLyqTNixCNTbl71ivk9ejWVwVqVMUYCJ8NhinlXZ5E5MTAnmiNOua7e5YReoF8cvRIZRul2jtn5kEwE+pyjPkSOiWPYwTvSSIJSgzKQ5kM3+aCOACuCMj8GahR+vhQ46qCoQlFhXRp4PvG8UPAsyiLtuUrguizQGczFfk48Md1Y5pHPz0frX06EKvUszxeQDme7l2VRaddwisZLn8ALQG/iuS4by5mfoUq/mj55pwhVKE8lNjg1LyiXZ4ED3pGosihYSSgTxedKhhNhCOOlN0WzblPgJS/0iu0uXv2m+vyhNt9dFFRPmeAdj7JZQQVlXJI70oRctQ8bLV8Yw5RdTWYpvLUUWJ8I5FnwIRFqdfwsyBznAy964YDzVOU6JmVMU2VFUIYl47Jgk4StUekWYXGZz507xE9H6Yuwy8GCaHKpReDxgqeEcmWmI/TEchCtA7Y5x0EnLAyR+VFRsR1BLcqaECkozFSYHk71p+zJZQO683LKNWlABGZGZWde+06iOQ1Nz0tQ25xw0DnWBCslDWOLS8CYPYIyQ20Rm6eRIyIc8EJrbgbRj+0MjuYLx04vXJVG3p7LyvbkfPWJsNU79nthTm4EXQIOOkcmlrnWn2HHNYCVkGZEndD27nygFtNnH4+pVh+VLpExphQVVFDGJRm8m3NOchHG1Ln3O2G7c6wMcYwRQhkZloHWqTUorwkREcdhJzxfsHHuQimcVhypQJ4Vy6lMlgaFd500OLI2RLY44aXEcxM2LTlD4XCMPFtMeKLguSENNORNT6fWgPSnyUdro1LIb/Z6Na53wIK/aLlOLhzKr8H8/H0czQPuvJyqWARmqA3iDIgFGKdGlSyJG5mu3OcdARubvywqNwDHssBeLzxS8MwKym25ANjyEKmPNlVao3ANkesyoykmCntFKXnHDi8cyYzCOHrxGwL+peAoAD+TxjELaL0qBZWRElUV1qPow0yiz4SNibnTX3aGktj5xukokpflPZZXM/lbweRQGdK5gDBept3hhH4HHQpt4wzgHcxrvc2q/Gwe/Ndlpj39rULC1kR42jsWxECfwGPek6DcNGprfllU5k5Bl6PfCUHM5qseu5HbIrSHSJWY3+SDVWaE9jPDgfm5Jvh4qAJUGXntmaPq7VXY4vVYwefKfieet9F7+pxlww1YED/ghM3e0eWE29PALWlga24YXOZkL8oi2/wJ7vhMIFXY6RzdmJlv2eShQWHFqGA8K5og2L68Ofm2LFBEURGq81ujbHgMUKORzYnHCVwVIrNHrV+LozL3JF733EkG4gZVelRelbbN+YJAJXC/lrgA6thTwSUbvEcjYIHpsiyCt3HwbtGRacMyugV6nZDoiS10ggWeq0Og03k6vLAjCgWFlxJhv3g8GW8ZZcYwuh4csCZeDbZaB8Ze9FVZZI4T6rFa/X5nxgk3pYGFEb5VdJTy0ffHC569UUlDZFmIKCc0QA6L8FTiqUPpUGjJg/MrTniy4KlWZU4+TFRgrLTqEMoO55kVA1EtOK8Okb58ynK/E1IRlmSRy4ItjApsz7PWnUBr/v4TLMuerkprULqc0B71lOxyjxM2eTdiv3ZrGrg93ymUg/BxMbldgCsyY84UgNaTNh7C5CZkx8OKoCwO52agR7no7v8KyqhMWF6Y2OAtyKzJIsMiPJd4djvh7lIYs/2epVbKmJ1rbI/GiqAcl8gO79jrHDemgQVBGU6iGSzk6BbY4D1zYmRxVJ5PHN1iprqHnHDE2b/LWXE1lp1uBI4kjk3esSURNkfhllJku08YEqU1RA46wSGETHk4MXf4O1JrWG5KHA6lLioLRzW3jgvsdsK0CIsUFgar3Xc4E7FSoAZhRYzMz5RWjUzXfCufBo6ImSeIQKMTFudBv1dsLP6gE1ZnJ9H/8ibnowWfT33GMc1exVhAXWLaLPUoa/NSyegvZKPCnGifRbPCnafhgZfyY04UgMtmGE2jZGi3enjZeW5JA9MmeP7pEICnE8chEW5JAzPP8jgVvH6olE0uUAzlNd1hMW1tj4k5nWylNVOVN6dh3EW1bMrrgaao1ANvTwN16qgSG3RpxNgUAw724lgYA/0IGTYuf0yEfU5IvHBzdiKAVKtJ0nYBVRoJJNQH29I3ElmVWfAVjHs9KyiPFBwqcG0aqAdaQ+RQwdF8kibK8qB05wbDbar8sOAYFGF6JiO84qty8999TuhGuCqLOIwemQo0RjXWzahsvVpN32VuDCwfhwlxyAk9AtOjURDBdj+BfMxelX5njeAFKL0CbScdJsFeY7+YxOt4SoNDmMFGFDPYGM/pqIwXE8cREZaHmNuxwZerCxwTYZcI/ybNRiY/p4IhYIu3ZnEV9r04E/pyTZxmPVXLvIIKJos3RPC+IrPsuDEvh9xVCgTGt9IaHbh3OeGQswnIRjVGxzV59tePlROiCJuc4+lqz21Z4IosEjKbgvRYuaU/F6/yBF7xCT0i9MoJTfE64E3ArjRQlXiKBOZGZUFQ/u1QhmCBf6Y6IsqACG1BqcWcewBaFZoiHPSOpTEwKPCjgscpFMVojL0i1KoF0cWjuNP1CgFlu1hxY1Ds/5wqEXv/W7xjfcFzdWamyVWc8O0cxjLxcuAbwByKaoHlMVKHZcdPJZ6SwNVZYJoqC1RI1EyMZ+e7gC3eJkLXhkiDGpPkmAi9qlyXl1UG8lKLAzKxRTkCwwj14+RER0TIxHY4Tk5Yq3mslPZIwXoX271jyQTfpf78NaeNepk6YE0a6S466iaotQfg2VwTZ1U4VemygtcHhdkRVzFjuPBQg2lq/zTxLAjjswqGMDpeuTarWOOt5OBwPMFkKGOHdxzwgqoyJMqgCDvEcQ1jh4HqFepRDovwcOI54GSE2zsaHsvcr88CUTy7Hfy06LkiM2ZHnSovJrDVe/Z7G8aZHk/ok09Tm4SsVWVfLtO6y1kwWxZNKbA1Kr0hMj0fbS+jHyghrMjLRdUKB5wwJEI1FoxfcY56VUoI5U1jWUmxHJSb8uNVA21R6ZcT2XqKBeY+gWWZsCwozTFSlQtjFfPH7M8pfkej0QRbo3LUC8dE2JIbKx/0jqVZZEn+/q/Kg/oMVQaABwuOGoW3ZEYbfCGxydurMusVjN6ZfHQ48M40ssc55kzApR4GnimYjd5VaWDGqIe3YdZ3w04ohVMHlcqwJqRdxwvRQPmNitIBRzYw+Q8kqRV4fXX23hjBG0yAqSSmYU3UEQuyflE6xEoJi0Lk+mAlA8Eyow41ulkvsC1x1KmyPFjwPCbCsqisDYGf5FNyGxI3kp2PRoezjK0mLzesTxyiOaVQ4HYsEFZhFD9JhBLCUP58BzREqHdKrcJu52jJJVnLDbvyJOIjiWemKsNBuUyVa1PLfouAYsMrz3vHoqgUFbZ5x4CQe2AqTxQ8JezL0ajKNu8ZzjnfzWoljm6BiE1BClZb3w8EJ7SdZiqyTZUmFYp5FvyIV/60poo3lTJ+c9iahiuDmSy350F/flQKGlmfOPYkjoaooGNrjmVKYY8Y93xTYoyaKzJz92lQtaxcdVwW0sJ8FmAiCCA6Sgd+FJpUaYowXeNIZj+M0U9HM1kcNshVYnxGVAUVTBZvmOC9OCoNWWR6HhT6xOqy+7wjqJVIOpw51ZQz8zZVGgJ8p5BwzJndWZ0KC0KgXZX2XKzpuEAiYoMieUDd4oVOcVwRrMywOCh9BKahNEd4PheCAnPgaQD2FjwFhWuzwC2pmSlMV+WIGG1vSYzcMGTb++cS4aHcB/Nn8sXiee/Y6B1XZoH2CHeeVP/uAXZ6x7OJ0BKUxwrQGI0dAkKHCIPYLiQBrksDDcBT3tEhjgYnHBaTAdiYn8/aLLIsBI45z78ALYnj8jwrHo1ajHY5DDTnv/vrqiJ7vfCd6gIfKEUWqjInKnNO+uxmqNKiSjEqlwVlUKzklQJdeTlMgGcTTz+wJAu0qZVxHFbq2pcbT9S8Cv2QIjaIlXGqn2e9wi3ZiQUgA55JrDxydRZGSmTAlDV2KngNUGGbXLioYiz3t1FhaYgsCHajzfFCRAhY/XRbXjZojpE9iZACl5Uii1RPcSUXTMekPlOuyB1iDjpHSaA7L7kMitDlHMeBxSGwPC9R7BThySrPANAsEBwcCMIiVarzjPKggz4HHQgLo7IsRLY7T8HBlsTxlvw1f1h09CC0qONnT2qaDQBPJJ79IkyPMA1ll3i6nbIwWinn0YJnboxckUb2JrYYLQ/K5TGySx09IiOBfUbu+FOlytFcWKkZawCf3DRUjPHTI8KVIYxkpv86LfFlV8WqLGNb4mg6KciN/uyuHrWbKfPct+eaKTOjXfcqNX2KW7I45jj9AlsTBwp1ag3peuWsJiony7tWcm0ZsVr8AWfDROP1WQax3c901ZHBqQpeY1SC98UBxcoV5Qz7uIAP0KiRWWo30+bESim3l5RbSxklJ1wf4ri1zHqFm3KWypBASWFNFjkkxmcewIL7Lm9aHVdmsCh/7WGHiU8BK7PAlsSzPXG0jGJOLA5KppHafNy9DrgzNbXCsj7JbgcvO/OyvCc7tQTQ5SA6WKKRxVmkVmEojWxOHAnWcBwSHdnO9yMMOmF+sPNoyuVj+0WYFSJzgu1mdjhhv3dURfjXwNE0nBIUU0wnJhXoiSdG3t9fgl8oDedmxHKKtsdoHMUW1UyEQ15YFqwUlGg+YYntWDJOLUdUK0yLph9zWMQMn1W58qTy1lYnrAcWCKfMAIxGn1iwbYt2/cdDAWO/pDnLaFviqMr57CczTA474aAXOlWYHcMb86Z8nVGhCl4E6BZ4wXvaNLIyb1BtzXngs6IyN4skwIDIiPbG9UEhf6xiU4HCWAnPWqz0cn/RDI3fN5TRklMDj4lQCpHhCF0e9omjRS1wLI7K3aWMxUBXhKPR1AJHT1HWAcNOWO8dT3r4mdTKNrePCj6vOIeIcaVrRGzUMkeHCJvzzPPGLHJcTChrZRZpSwMpQgGlVc07U1Sp0Uid2vRjuf5/yAmNKC95Cz8tGkbG29vVNNRPDtwBGxSqzevlbVHpx3oPTm3nMC0q14RTg1oZx4CvVhfIgIUh0gBUiXB5VGaOmqwsMn6j0Moddq12OcHJWC/Q8ud6wDlqsFJMk57+9nxFhJe90IWVyU6HuvzAw4BXcyAaL2FricqRvAH9hrshLxCc7+B9//338+Uvf5ksy/jgBz/IvffeO+b3X/rSl/jGN75BY2MjAP/qX/2rUx5zMt5w35UuEUoODqpjeTB50lnRnMzb8gA9KCYa5dXKC2XscsJuL/QiVAk0pGEMZayE0dJ2OqGuyvNzw4ElWWSXdzxV8DyTa3M8WgANsCKXW50djfI3hIkUQZ5FO2Fxvpioms714qh0OGg/KWasjMrtpcCMGE8ZDT8kwrPOcVm0huSLiTEm9jmhM5eSvTqzRuiWxNEpwvFczW5+tAVhbrQ/JeCQM470S96RiXBFNpZ5MRq9ArvyEffLM2vmPZ/Y2L2PSsynWpmkX/CCECk5YfaoIafJoBw0F0SleRz5AgHW5gJbZ6L7RaDDm/fnglEaM+M1J8toU6Uxl1sYT8dkNAW1gksPhw8f5gtf+ALf/OY3KRaLvO997+P6669n6dKlI4/ZuHEjf/zHf8yVV1456eO+4YL3nKhk2djyx5yoI43GFGsmpsDluS43WGzZ6R19UjYyhme85/osjDSvlkVlTRroLXo6xPwU64DLQ6QTz/SoDGE+lIed0JJnpKPhsSC+y1vNfH8hMUlYzCuzPipLgumCeE4EpdlRuadkmisZlm1PV1Ol+/+Knk4vLIhW/50ZI3tFGMJ8Nx2moVKjSqJCtcBQPu1YOCnHKALXZqab/mjB0wM8kiQsjJE7IFcDtFJFNTZYMyt/j2V6ZGOuprgoKlVRaZhgWGU6cO9QSiTnkk+xLhyBzbkswposjlt3BpvibOHMLjyCaccsCTryvkrAk/mCeE02dkEv4+Q+yWj0Y+qHM+Nro9s9DGz3Jn2wcIrX8pLFeax5P/bYY9xwww00NTUBcOedd/LAAw9w3333jTxm48aN/Pmf/zn79+/n2muv5VOf+tSEhu2XZPAOWDNLsIA6OtupIm9IJo5SFrks//L2AN8tJtSp0qomkFQ3auvsMVbGMTGH92cKRp/rF6OgQc7hFWgJyooQedk7SliwvCUEWtThxUSnstxsYDxUAcuCycN2ifHJX3ZmxvDeEBgQ4cm8Ubc8H6CpVaVBjap4QEwVsCVGtiZCQKmNQnNUnk48nbmGyg4c7yyZo3xdfq3mjVrEiowfdI5hY/GLQ6DbOQ45q2lnGINngzdO+I35ruFk2mBZpncqokvNU3jsyRjC+ONRLEhONEhzJgjGFx+SE0NeijUmo5ywxZuKmfKGxNGT73Qufw10u4/mLCuv0BbDGReWCs6MgwcPEsLYbWNjY+NI+QOgo6ODlpYTs7utra1s2LBh5Of+/n5WrlzJJz7xCRYsWMBv/uZv8md/9md8/OMfP+NrX5LB+7jAbu9AYFYaTsm0MqN60ydWiugRGETY5YUE4fqhFAeEUQMpwBga27osMiA2Uj+I6YdUY1ZszgltqRKdWVz9pOBpULhnOBtpTi0Oxlo5LlYPBbvxDzlhmupIQ3OAwPfF0Z8k1KiZIrzkTS8lU4jesTkRmqOwJNiwyj7n6AAO5wMtMSpvTTNa1YaFbLERhrHG25IQacn5y6e7kXvzTCMDvl20KdG1WeTWLDAtl9EtYtKxTuzv08EGVV4ddjvhsBNW5pOYZ0INcFmI9MkJmuKrQRWM6UlUAdekgQExzRbFAvxk32OdQp8yaSXKV4tpUWnKdzwV1cIcZ5l533vvvezfv3/Mr+677z5+/dd/feTnGCMySv9IVcf8XFdXx1e+8pWRn3/5l3+Z3/qt33pjBu96hbnRhm3GE7JfEZTZMbDee15IjObWGpRZ+Rh8jdokXRDTDhmPvjZTdSSu73fCrsSh0bLyHU74adFzdylQF5UnqwsMx8g279jiHZ1eSIk0qrndFIFWLCBtSGxEaGkIDOZmykuDsjXYDmKjc+zyjgZV9jj4fmLFk/dkKYui0qAhHxU3HZeszBV3Qo8IN+WZdpeYlnUDSq06lsexmi4ZVuOvxgZQnk5MZKofZa8TqlWZGa2GvXhUQGxT5YY0MICVE85HcFDg5VxLfL/IGKnZ8SCc//JAfX5efU5QNdbRmdgzo7E6RJaGM5dWziXqgBsqNfYxONuG5Ve/+tVxM+/RaG9v55lnnhn5ubOzk9bW1pGfDxw4wGOPPcY999xjx1YlSSYOzZdk8E7gjLZRxlO2ybx+NWGoIKZTUqemsVGlFsAKE3yiA0AqUIiwMEbqVHkpETIR+rCt9PIQOZhT3OpQikFZGSI7nbAxz8J/gtW5X3aOalXSxNOoygveccwJjRo5jtDtzXmnLio7vONl51kRA/PzenZVzl9WgbVBWRcyeoGvVycj05gDApsKjkyhMcCSGEamO8s4KsIO78ycOA30inAsLxXMi5Fb08DS09z/3SI8npgmydvTcEbucgk770Y91cDidBAskz7szNzhbNGPyRyUKZevFg0Ka9NIFMate58Ojsq05euNsw3es2bNmvCxN910E1/84hfp6uqipqaGBx98kM985jMjv6+uruYP//APuf7665k7dy5f/epXedvb3jbhcS/J4D1ZrAmRlcECyMMFz3EH1UFHNEaUsdSzNP97NB1uW2IGx3ODTRUqcM9w4JGC48Gi5/o0sDpE5oppWThVRIyS93LBszAqs2LkReBQ4lgaAtPUMttyCWJI4OXE0Y/j9jTjrpKt9AIUySzzFRvCGcrpaFVYeagcFNdmSioWJLpEuCaN9IhwYxbZlnj2OnvP5S9EvZpuSA3KNGyBa8YCXhWnlpRGQ/LXKImwyznmj6LTKbbg1WBBa33i6BIr+UzFyabMfnk12O9MGvcoQns8PVVxKmgbtSOr4CLCeWxYtrW18fGPf5wPfOADpGnKPffcw9q1a/nwhz/Mxz72MdasWcOnP/1pPvKRj5CmKVdddRW/9Eu/NOFx39DBW7BA7LGsuTUVpkUrC8w/aYy6LD0KNiLdLUK3mPWYiDBdrVHaL3YDZ2Lshk0Fz5tKgcujpalP5hrXQznz4ZiYPOohwAcz3QUbiVdn3OC2oLQ56JfIzLz5Vw28LYt0R6Ux2pRjF7DHO1qjMntUACliLIgdzlzpE4wBMz3aziBggV6BDiwrnxOUmzNjr5TErs8+EVRgCBN6Oh3mROWdacZB51h00g7oZSfs9I458YSprsCkjIbHQ4/YVOfZlBzaVTmSi1+dTeBOsd1ZpeFXwUS46667uOuuu8b83+g695133smdd945pWO+oYN3GQ4rs/SI8mTiUYGmkzjcWR7EwDLhTbnWdXWe/W3yjscSu6CXhciNpcD9xYQtAjuqCizRyM1pYHXOVJiR0+M8Vl9vBOaGwEHn2JgbCXuUywM0OXj/cMpPEs8TVQkdaeS9qQ2ntOWvPzsqM4Ky1Tu2JDAzU3Y7YU0eILtE+EHRm6pfsInEPQUbwrmlFKhTC0YPFxN2emGlRFrSwFOJDR2tSwOHCo7d3iYkdzlhyMkId3v0QifYhOJuVZ5LhGXBgvMMNWpizFk6oKzNIv1TLDOUcViE9QVHF7agLh5nBciAF70pFa7N4pjSUKPCTWdZ+00xA4ZBEa46zVh/BRWcT7zhgne57nsyArBXTHhpnuopnf96tewVLDDNDZGd3tGbP/eYs5pwjzj6URodHHfQ44zGtw1HtVdu1cgOZ27pi4LpfouanOplwRT0NnrP/lwG9YAod4RIKqYJvlNtISm/l9488+x0whFvTJLLM5tmHF1WUGyAyGzJIi1BGfKmVbLN22Thnjy7rlPTTzkkZlXWrso12Os0KdRF6HYOj3LACfudQ4B3jLpeO725Ag05a47OQNkX4YYsMFPjiFTsycyN0ejNWSsni0DBiUy9A+WRYsIW7/jwYHqKqNWgQKeXnF0kVL2KGvloBGz3lALDJ020vlaIGFsKrGk8FXriRBjGdmxTqSRc1BDrE03l8a833lDBe38eNFfkXo6jccDBP1V5upxD0kiHKHNU6QNeShwzoqkNplgQnBWVvR6CmA52dYAdTuhwylHn2C5Cp8Cb08DSoGz3wgyFDc7xdNHkYDPgkEJBlSuwSUiwrK4bK7uoV4Yzo7ndlkUWxzji4diRZ541EdpipEnNUeemNJ6ylW9X5frM6tzzQqROYE6a0RDhiDNJ2B7vWKqR+Znxjdd7x9IYac51Ta7LAldl5esl9IkJWg3mX+SDnFDMawjKTFHqIywKkX3OMSsafe7kaz8eugWeTjwJMD1GekcpNB4RY+XMjMr1aWR9onQ74ZXEMeekTLpeYVkuwVo8TYANWJO1bgoBuBq4KgsMidD6Og269IixbgCadWz23ycwhDBDpx7Udzlhu3fMjSckJC51VLVGfGny7zUpvv7R+w0VvDudMCxmVTYLpSOv/zarIio0IHSrcsTBxoKjNg08XjD50+VZZFoMPFzwIFYamZFzvOdF42zPjsphJzzrYXshYUFUbk4j81WZq2Za3CnCnqgUVJkXIoe8bb1/DLxY5ZmuShXC5TFyPOau796xBZgXxykN5P2xWVHpEpNOHa8G25k7Ag0Bm71nQJSFmbI8KoujOQsdEeO6lz0wLwuR6Soj3OhC/mcYq+0XUGaq6Z5s88KjwK4qT50Kh5zRNG9MA7OjsiyOby93OghWzlI1n0sn0JUrNHbldfojTrgtwHuHMw44N64FmmAiYM8ljie84/IQR5glipVeXnFCjzNK5bwpnGOTctqMuxvY4+DyeOImi9huokbHMnv25I5NK8LY6c+UXBcGxm3O1ukJLfPRlNgSJkc7jNEQp8qk6cmTiGNy+qb0pYbhDkc6BTOGQm0leL+mWJZFmpxlSsfEHFY8cEMamKXKe4czgsI+byPsXk10qUGV+THy06LnkdyhfU0WWZE7uEcsi06wIZCi9zQrzMnZIgN5M9M8C5W1GcwPygJVWoi8LMJL+TGaAyzTjCY1RsoTiWdzwTjN5cGXAaxu3KTK9BiZoaYP0u2F42piSaP51X3ARu847GCPc7iorI22s7Dtv938R/Ns+pXEcWVm2fv8aKP45XKTMXNMN9xGxAPTo3I48ewHdiWe2qgkovgoIwydqX7VpylcnyvwlWmKZYOGeVEJWKBT4MqgLImn969UTDM9il2Lo/mOoSSwoeA4LEbhbJ2kvspk8P+rLbAr8fzCUMYvlWy7stMJjxYcjQrvLpmujmJ0xTJnfbRjU0e+m3AKM2I4hU5ojehTa/ZCPizlTgyATQXLQqRRZYxp9KUOZWplkwvhyryhgncdJ0SHotrWN1G7CTyM+AnOz93QHbAkRPrFoQhD0Wqoq9MTY/Up8GziOI7xr+eosjhEBjFa3nGBDTkNsVeFw15oUVPDE7WM+WAitAOdURkS2OscbbkLzM1ZYFBMZ6TbCUm00fwUqNfITwoJDar8/FBGQ1SmqeljbHUmLrUqn/RrUqVDbVT+UOK4omQiU48WnJV+skgRxYm9RhmHRdiYONpzdog5tQv1WAOyIW90tudUwtY0ICK0BmvM1p5lAOjJs+vpaporo82Ja7Bs+pnEswPrRZypYSiYyXJPNKXIZxIbcroyi9REmI+yIgSaz+EdWQKi6ogTEljTeL9zHFM1c2Y9M2e9UZXqaDZ6Z1a5GIsCVuIqyfimzROhlhOSxRVcuLjkg3ev2A1y8pe4HtvSO069CO6kf9dgY899opb9iXkxNqrdpH0iPFxw/FgdM2NkkcJNacShPJ94djg4Lo4msSx2ABmjF700RHqwmvfT3tGIBcU5MbApcTxc8Aw5oW4449acS17esWcou8WxNfHckBkDZQijDAaxRursqFyTRVYCLybCXmf2Z48ljh3eUQ8sFps8nRPDmC14j9gQ0lExwYB6bPR7bbBMuHz9bkhNI+OZLBIEOp0ZEO/3jpYpMjr6sG1/p4PaaIJcC04KJiWBQWfXYFjGn6QdjbIUQDpahwa4Mefzn40xw5nwXwZStiVw3ShO5YoQ6cisqTz6fE/HWW9QuDULU6Ygg7238SY8U0ykywErQ8W9/mLGJR28+7Cml2Bb8JPlOiej4DYvKtVZpFNgl3N0i9mhHRGhqEo9pnOyyQsvJo4dPqE/RFZlkfnRmmRRHIuDGQnXo7RGy1TLqFczgNjphGKMHPBwm8ZcXwUKmHzqgNi4+jVpIOTj17WlwMteCXJCVbUa2/qO1vIQ8gUrU9YS2OmEVwp2ba5OI0NqHOwlJ7EWFuTvf/qo820dZxClBtgObEgSjjrTZmmKyoKcl97H6fW2T4bDdkIDCEUxPZeTg3ejwro0jkzD9kxAN+wSE86SnNrXkGe9490AJczGrlZhSTw727R2oP0kMnwj8I7c4WiyTcRzySABK0EddHbUuTGc0XTijYRyQjSVx7/euKSDdzkrHFRTblsc1CbgJokB7HkNqqwMprh3Tc78OCrCc0XHmizSqsq7hjMa1LPLGTOlPeqIKfBW7+j1wuVpGHFYV3LTXjGDg91YcN2Sa35vdsoNBJYF5cqc1XBzfuOXRf7BRuDn59OBo2ui7dE43wec6XqMDkB1QBALuJdnkWqF71QlTI+R9lIY2aUEbFFpyKctAya0VcCas6OPGTAD4oNeaYrCnBi5JueAd4qwPjHK5HVZJMUy59MF21rg6jTQnThKzlxzxkOrGvvnscRTcnBVGkcaeCdjbl4nn64wU213cvw0ZYVuEfY5cxiaHU0aYH/u3nM6OdnJ4lwH49MhYte9iI4pKTWqMjvX/Tmbksoli/M4YXm+cEkH71psO7/FCQcTx1aEtnEswk6H40445qwJuDhYXXV6Tu/4XsFoh8ecMDuYk3xTtCZkO0qvExryALdYFR8tI1bg0cSxyxmLwzthRlTeBLySBYrB8UzR0ZhnmiVAEBYE4573c6rg/zQ1pkgqOmKKcCRXL+xQYdZJDcytTvheIWG6KplCp9gkp6qMkCcy4MnE8VzimRciN2Z2w2/xjkSgMbUgfzRfyOZFZS5wXaaszgKtOYWwM+dCZ0BJZIQJMeTgytR47uPhiIPNBY8DOrLAMMYGOTlzF3JdcwU5Qz5UA6wYdU1/VPBkAtenkZl5DbrM7Z+Wa53U5Mydp71j2EG1yhk1c8rIMM/OYTEH+9djAvOICM8nlgjcmJ5odhZgZHCrglGoBO8LD1XAIlXSqOPyi/c54YgTlmVxJCiWpVnrVFmcmdBQ+UINAFu9aUIvC0ofFqQGxAZtWjXSoDaF2COQIVyd+zpWY4Hj+cQmHb1G2iJMj8pyYHka6S46hoLV1cEofsdFaJTI/y069jvHnaUwEogAjgk8N4o5U4sxVWZGpSGObXYNYzou+73QH6HJWxOtNUbqFJ4tmB6LYFZwA6Ls9EIdjrVZGLHzqtKysbAndUAWuQGT4O3J9UK2eMegg4VZ5OosUp033srB9kxZqFehhNmmHXSOV5wwJ0RWnxR4Esy7MmX8YZ7x0CHCS4lDFdZJZLcYr7lWrSfRJ8K6Udn+0hjZj0xaS2VQ4KgXglqZouZ1YG0UsYWuoG+Am/wcoFI2uUDRqONTqhRrYg0LNI0S6d/nhC2Joy7C4hh5KW9WXptFXnbCt4t22VangSOJZy9wV5pRBRwWY2ZUKTxU9BwV4fZSYF5+Axcxs+Jt3vHmLNKgyiMFTyewUIQlMVIQ4YosMgBs8sI+D4PiOOAdw8BSr9QS2emFecG0OaqwrPyBojffzczKFj1ijUlRuCzXcK5VaAvKW9KUnd50wmuBRCyoDgBpbsG2RzzrvaNZIlXeDA2K8UTtelaMHMTlNEgL+Bu8lRzqo1JSoQFjnRxxQqI6Ysx7Omof2FTkjcF0W2rUNFecwoZxatFVMCU2RlnfW1Roj8r+fEqxW4THgJg4bhnVIzGnpcnfrvUKi/Py0IzXiW7XpLaQJ0yuz1DBxYc3RPA+HQSTaz3ihJZRN2ejKtUKLRrHrLCbvfC49/TkvODpKCVR+pxjT7Rx9z4H+8XRFgNPeEdJhGU+MG9U82pOVGoINKryZOJ4qOhYCMwDFodIP45uL/SrnWRthIao4JRqsSbgeu/YlDh2i7I2RIJCgnI0H8DZpcJu5zgmSpdz9DoYypSrs8AMlMagDIpjupqd18pgNMVhbKK0rJfdL5bR7vbgMVu3jfmCty6LLI7KTI0j9esarNRQVOXKEDkajT++o+DoF6EnRNYGPe1IfBmLgvnRLAjKdFUGomXEL+QOMLPiqQ3oyaJZldvTMEITXRCVaRp4xQlPA9Xu1QU8wRYXMKplkBPMnNcS48nM9mOa4zOinnOGzcWMSuZ9EWJ0VjWEjQZPV3hTemKIYloaqFLzbGwW5fossDZEVgRlcQj8sGhZ4SBWa5wXIn1OWBiVjrwplmL1xoCJWmUCRY0m25rT/36SOBSl5BwbxGRme51t16cpHFGlJcDjiadOYWaItKtphwRnGd+qLDCISbh2eyHFdMVLCk15aWRWVLrFat0qsDgPkI/k3p1DKFucMEeVFVlklphKYhOWTafOxuMXOeGgEzpFWBAis7BzuCkNHBPY6ITHC97kX1UpOWHpOHKEwxjdb0BsEfWY3vqMUbulBoUkVwCsPc0U6VQwOut32Gtv855pwMIwtcBm3PdTs//jAi8WHEHts34thl4Uu56nwwuJs+9mFll+ht3E8XwXNtlSVAWvPSYM3v39/fzpn/4pjzzyCN57br/9dn7t136NYvHS24wdzCfaDijcngYOiTAkJ4Z3loRIKdjUYZ4Um/t7XjIYFmGWKnWqtETlxixwDGG/d6RYJuoxUatO52hVZU6qVKuyA3iw6PEos7PILLVA1pzBsFrzdGaEGo1sTBLaY+TeYWuidgtsVRv13+Ude52wPFPmZZFtBceOxLEsRGbm9c+rcmpj6hwhmnelYo26PjEe8tV5WaEJq+HWxEghX2gOOTdyc4uajsajiRk3LMSy1i3es98Jxx2kCrPVss+Tv3C7c72ZDhGaVVlDPG1tuQa4+jTlr11OGBRYGqzWW/58JotegSZs0GjdFHjpgxgdVcUonKN3A0WF6mjMnurXKFfb7oQeYKaTcQdt6tUmfs+0+PWINZUFuC4Nb4wAfik2LH/nd34H5xz/+T//Z1SVr33ta3z2s5/l05/+9GtxfucUKabb0DgOawHM2qwpp/kNAS8mpltdq9GE+73QHpTtHg46x8ycu90cLWDPC8rL3tEvRtW6PCg7HWxSa4oOB8vOlkdl+SiDguszG1P/EUZR6ykI/UFZg3J1anXrF52nOUIPMjK2Pz0Pxk8knucSoS3aSHURqBJlvip1GB+8OT/Po8AjBccg5gG5IgSeSDyLQ2RxiHTlAk27nbFa+lE2JJ5BtUVrCKWgdq0CypqgvOI9mxPHTuAtieP2LFKvkS7nWZUqV8XIcawcc7K3ZY9YcNO8mXk2zb1+YHti3pHNGqlV5TnvmaZWUiqXKyIW1McbTFkclHqNXAZjpiJHY7szVcZVWRwJaEFs14Dkao+jTr8KU1GMvHZ1515n7J7e0+iSrAmRoXBm5x7F5Bec5iPjF0KN4HzjUgzeL730Et/73vdGfr7hhht45zvfeV5P6nxhhxN2ecesqFwxik3QKcLu3F7sxjzrikBLVKv5qpUNurEAlADNKDu8py+zDPtlJzxV8KZOhzJDbSqwqKZ9PUOVLd70tQex+m2zWiZahcmpdqcZP0ksc34+cfRIgcsHSrSqqQV6bBv7IkJzbu7wkjMneQEiys+WAqAsiEqTwpygoIHLQ6TbCZud8EjBszU3Hj4mCVfFSAkzSeh0juvSQJtCEKUtQnMwwa1UbAFs1ECfOLYnnjQL+AjTogXFFxPHnGgGFcvzLHhuVLY5G6l/2TsWjKJrXhaUJo1Mz5uuo4NcxF5vomZkDdaAHRDrDXQ5YchBqsLxAGm+IL2QOFKEq7NT6+XV2OLUwPjBu4TtalSM674s30WUpYIjMi5v/bWuS67MosWh03DjJ2O51qTm3TreZPKlikuy5t3a2kpXVxczZswAYGBggOnTp5/3EztXKGHskaY823ZA1UmX/hVvGZXHMSNnaCiMCfBrs4j3wiuFBFAuTyP7nRv50A+XZVVRZqpR9J7xwsMFz0HnOKiKQ+iRSJ/YePKy3DoNLCivySJe4UkvPJskHHVWVkCVw/lUXEuMJAi7E88DKFu9py0oM1S5NQ0UBDYWPBscrMkCLyXmNN/rhFVRWZAFqtQagQe8IxDxmQ27dCBEbBG4PFOGBVqjMscrSbRa9mHvOO4cfSLUROVvqwrs846fKaUsBXZH47gvDEqfFxbki0yrKoeimSKPRjlongwF1nvHUWeOQ81qDb/RTb+jYrS/+VHHUPv6VdGoLIzKS4mjV0zDvM8ZfW9wivKvYIvKkhB5ouDYXPBsjcrbc0MMG4K5EG5n2y21AJ2v8jhvtMnLSzJ4t7e3c/fdd/OzP/uzeO/5wQ9+wMyZM/nsZz8LWFnlQsZ+J2xPHEWF29JA2zjqbEtCpEDOFgF+WPB0ibAmM2PfdrWs8LKgdIuNiq/LlewStUbk2hB4DEeLE6oUni84nko8imltr84iQYRnEgs/rVG5/KTzqNd88lBglgbmBeh3wjaEXfmk4dygLAzmR7nZebZ4R5NEulXY7QusC9EU5RQyhfYA+wqCUwVVFkf4t0MZ/6foqFHHrLw4vMk5isD8LFASxzGJDDszhGiOSqOYSUUSI4fFcW3MqI/wdCKIWB18NlbXXpmXFVpGZdhNCrflfOxnEpMZuDI18a3xoNjWvyRGDxwUR4vqyNQmwPq8rn4gRu7IM04wlT4vQrezz0byac6WLJJx9vS9VjVf0ZcKjp6o5vp+0sIziJUupsfxS3Oj0YftVBpVuTyc3Rg+WINyi3fUqLIsKhFb9D3WkL8AdvgVnAdMGLwXLFjAggULRn6+2EomTaoUI7TpibLDyWhWaM7LJUPYF3+Td2x3wq1Z5E2p8ZJr1W78NKfUFdSGc6rUgtN1QdmMMCeaBZkoNGnknlJghtpxA56d/oSMbBkZ0OVgdoj04cnUtLnnBGV7wdEW7d99TnhnKaNHhO9Ue2YATSpkkjvFBFicBTYlns0FTzORNoUGhDnBstf/XZXwdDGhJkSuLgWqImwrGm3wimiliqF8OlKcbaFr1bLkpqCs5ERQ/rWhjO0i9Ocyuu4017iMQTGN6pe9Y0iEt5XCuGURB1wZAjvUsc2b/ZrPIsNY3yICVars9kK1CH3hxBZ/VlQez3ccV2eBy0Ic0TJ5NahR0y7vE/vOjDcq/2JSnrqNE04y9jqh2wn9KiwL4azr4t35NK3L5YCPYsHcyh7hlHJOwHoN9VrhgI/gUqx533fffaf838DAALW1E1XOXn9EbIu8LoSRsfEzoR/jJN9QCgwXLYgNo2z2wlFnioFduaVWrwgve+Fo3gC9PFi55NY822yJSpcIRTFRpCLKvKgMEXgl8RwTsdo3ttXtwoSvvJiL+17vcGr12+Go7EkcB5xnjioLQzTNkzRyuUSWp5EDXqhX46j/NPH8uOhZEgK3psrSoEyLkYVROS5w3MNxIDrz3lwsNlTUFG1cPBVT6dudL3jTRwW+DKMJ1qnSrKYTMlOVHlUGgLrT1FojtuDVq3loDopSG82IIGALQ5/AknCCBtioNt3Y7YTqYO87FZPgPebARRs4qotjFfQWRuVwjPSKlcMWZ+dmk+sx5cX6vCnaOs5hq/NrNZ6i38mYGZUl+S7l1QTRaXmTvSbasFUtttB4xreY2+6EPd4xI9/JVAC1LZHsUnPSeeihh/if//N/MjAwgKoSY6S7u5vnn3/+tTi/V4VOEdZ703e4LZ04s9maODqcMCso95QyNnlHQYQ9eWCsBWbmllozVNmJsN8JxxCC6Ag3HKyJdk2IdOTB6YmCpyUq06LSkjcAn04c+9Sc2Y9jlL8qVQZFuC4NPFXw7HBCj8BhZ271hyKk6mmLgRtHlQqagvJ44vkn71ifCJkTrsqsQbounMhuDyBckUJ9SHmymLC5IKweitycRa7IBbASjOc8J5qi3wC2wPQB367ydCKsjjqimdEvlg3Pw4ZS6vSE1GjAgvJuJxxyjuUhckWwydJjmNRuzHcy9RizZ/GYgSm4NQ1s9I693lGKZuW2W4SCV5YHK1+czMteGSL75VSN7DJ6ga9XeQoKd5dOLaWdDnvzMlxBYUYuezAaq0JkcZxYohYsYF8WX/3CUo1pqJRRB9yUS8meTvL15BqvAttyDfjLszjp63GpYKDTkQ5O/rMo1FwEwfvzn/88v/Ebv8E//MM/8OEPf5iHHnqIurqznW177ZBhjckSwl4Hs51w+QQ3yvQ8W3YoO70f0exeHSLtubKex4JRT65ZUa9WykCVl5xwzDmWBpPanJPrqaz3wiFs/HwaJtA0Q83ANqpyPBdsqgMShMMO+sXc6efGyFwgqqCJ47gTMhf5TtFzbRZZm2e6qcBBb/XYfhEuCxk35xrbo3HYSV4DtmxNVLg+M3ZJb16TL2Cj1du946AXZkZlXRb5UcHxXD41uriU8cOCDQsl2DV4Fqj2jtXEEW58Ocvryt/7IBaoX/H2/rya4UB/Xqa5Ts07s18sINVidesERRBqFG5OAw252uNlwcyWjR5n72FOVBrzXcjp0OmsySwCx7JAbR77eoAfJ54lWWDuOM+ry2majTq+FrbnzGP/rxXOdGMvjUqLRupHXZ8SsDf/THqcUHsOFpWLCpdi2aSmpoZ3vOMdbN68maqqKv7Lf/kvvPOd7+RTn/rUhAf/4Q9/yJe+9CUGBwe5+eabX7Pm5hA2OOGAxSFQFKPAEc+sKLgoKhlxhKu9INrzZ+gJuloJeCr3B1RVDuW6GIPOsvxqVV5KPAuCDfr0iGVq+51jZhZ5xVk9uSUqd5XMdaZRzaGmL40cdVa+OZKPga/Ig9MygW844bAqRxRaUA46YXXI68wKSzLlaglEEe4cDiyPxh8/mmfDddiU4hBKlThWZ2ZjNiDC47lbfQGr5XfkfOFEoSnaTuGwc4gKt2S2OH2jytMU4bo0G7Hb6hcZUzKIOed9Qb7rKDuSN0elR4QrQ6RThJ0FT5cTNmaRVxJHQ7RFrezEMyOCYrz6KqA5z3o9pv9ywDmr4wKSWYnoTFgQ4ZbcZm3WqMrBPwDfrfa0B8fvD6anPK9Nlab8tV/rcfdzhbJv6xC24DXm3+/LTtKAfyPhkmSbVFVVUSqVmD9/Pps3b+b6669HZOJlZ+/evfze7/0e//RP/0RzczMf/OAH+fGPf8yb3vSmc3LiZ0JJYCifbV+uSsNJZgJnQrcT9uWljmUxsjHx1Ks5rzvyEXqx2vicaMGqXBufFSIbvHBYHANeuSW14JJEmCY2gl4TTTdlnxO2Jo6rc/ZEI3BEYFGw4PSSRo7n045g4+LtUenyjuqgeeNO+am3wZ59zjFXrYRg2bg19V7OR9RnRdPz6HSOveJIVFmsJle6MbGmIMDszOr6x8TRCFydmTfk4wVHlwjrssAvpIEnE0dbUKpEWR3NUPkZYLuDtWLn2+GEtqi0xUiiytMFn++IrHSikNP/lCLKzAh7E0eVgpcT5rpDwObEnIFmamR21DESt0fFSi81qlSr0UInQoKJdx1zwjAnJg5nAdUI7WdY6E9usHYLvOA97TGOUXu8kJFhU5SDDtamkTbVcSmbbyRcbO9+wuB9xx138Ku/+qv8wR/8Ae9973t59tlnJ8Xz/v73v8873vEO2tvbAfjCF75AVdVUtN/OHo1qNDSwhlqdTt4DcGWI7HE2al6elMxypeg9Tngx5x4PSlmy1MbOg8LDRcesYOWQ4ahs8EKCZbNXp5FrQ2RQoCdG9onQL8IBBz3ORKCOJI6OEM0J3gkDIhxQc5HpEvOFXO+FTCM4xyERXvSerYknqnIwwvuG4Sc+ocvBW9NAhwgdTsjyRtpelzMRBIaC8aevygLLMWu3PgddXqjLA/AM5yiibPGOkkAhH9RZFCMvq6MlWPklFVMjHBaTgq0mssk7qrEM15gPSn++Cxi9S21QeO+w7VKOilmnLQlx5MtZxHoMvbnU7sm4MgSORVsoiozd0QZsAVOsXDC61LHD5427aCYRAO8GlvQNM5VJhiMiDDs4KI7LYrgoMnLFrk1U2x1ddJHrXOMiLJuI6sRpyoEDB5g9ezYvvfQSTz/9NO9617tobj4dQ9fwe7/3exQKBfbt28fBgwd585vfzG/8xm9MKms/l9gFbALmA2sm+ZzjwA5gJlaHToGj+f9vALZhGeOtwJuxRt4fY/XcFfkxdubPnYPVUYeAX8l/VmAvdvM8lj+2Dcv6Hs9/txC4FrgSy96fAfYBe/LHtwLTMQ3xjZhkakt+/I78eHdjdlxP5Me7Evgu8I/5OS/Gssi7gZX5eT+N2ZnNx4JxAiwAvg1sBW7Kz2tBftwkvw71wMvA/81fuwl4DrgaeEt+vUL+Z6LGcSl/TAkrIU3DFtFj2A5FgC359V3Mme+jLuwaK3Aj9pmWsQ14MT+3N8OUAjZY07PcaN2VH7tlisd4PdGPfS9ncEHEotcVL/14iNIUGpbFGuHyN1VP/MDziAkz729961tjfp42bRrPPPMMS5cuZcmSJad9XgiBZ555hr/927+ltraWj3zkI/zzP/8z73nPeyZ1YkeP9hEnuY1raWmgs/P4uL/b74QjOe2ufZK0qD5gS8ETBZZlgScKnmo1/vAiBe+EKpQFWWRArUu/vzphSOCXB1KGRCBxHEU4rsqjRY8ILB/KuGPUOTyfeF5IhCERrq6vZlHncb5bnXA08axMA5cNZ1RjZgsDefmmNnHMQDjqhEKM/OJw4HJnJgpbRHjBC1V5fflwGpgdlFXALi88qrZALCt4XnZ2boui8kqEtszquL2Jw4nQlkV6xYLozKhUFRNIHE8ozEkz5meRRSK5zZyN/M9uaWDusQGGUB5MHCrC8HDG0VFCXlPB04njmAhL8xLLNu+oxUwwNuQ6KUl6ZqZICfC57slQFsdMHjYBtTkN9CGFN2WB1jN8l0ZjGHis4ClhjdWyvd6rnWw8FzjT/TAejpzHczlbTPY9OCc0N78hpLNOwYTB+9vf/jYvvPACN9xwA957Hn/8cebNm0dvby//7t/9O9773veO+7yZM2dy4403jozVv/Wtb2XDhg2TDt7nCoujaWeciXlwMoqYeUCmwsvOsUscTpSrs0hrVJZE2CfC+lzQaXPiGHCOeSEiYuWOJlVUlfUFT4Z5Oi4OJwaBjosN+DSokqgtGD8teBIRrsgyfiYNI9OH09UMlAHemov8/0shoVqUo844xbeWAlLwPOQcqTPfzs3es9eZh+Ym72kEPjRUYoYqz3jHtGAysYNidfErs8Be59jhhSHg8mDvN8EmSEtiJaE+sTrxyX6gNcB1mdXDh0QYRjnq4YjCJu9pUKttF9SUDMcrL3TlvPi5+aRgeXvfI8L2vAw1MwSaojF9Tpf7ZNhiUWR8Iw7y38+N0ONMu12wXdZkFhqHNXaDQOENX3Owz2hrLkG8MsSLbvhHyUW4pvD41xsTBm8R4etf//pIlr13714++9nP8nd/93e8//3vP23wvv322/nUpz5Fb28vdXV1/PSnP+Utb3nLuT37SSAhdzufBBSbPEv0hMrcTxPHHm8Ute8njnkKs0LkoaLn+cSzIgvcmkWuTDNaolIblfUFxx5nAbBG4No05cageIT9ojxc8DRGG5uvE0efFzqxoFVQcJhMag/KYjUnmecSx7CY8/l0hRtDRilXBuzxQjEqRYXLYuSYWLa+2UNRPKWo7HRCQeChgufKLFLItUIOOKu9L8qZKe0xMoAZ7h72nnlRuSE1A4XWGNjvZUREqkNO+FeWc58MC/CLQmRr4ngxSagjMCRwFKGopnrYPs7kn2Ij76mDmEUWBuN01ypsz23F5kel0wkFTDK3vAAMAjtzLXZFub+YMEON0TOaLlnC9NS92uLUrsrMnHVyWIRngIJ3Y7RSxkMBW6hSTvUUfTXoygPIZIbKLiT0CexzJtzVHmVKRt8VnB0mDN6dnZ1jyiPz5s3j8OHD1NfX4/3pRgBg3bp1fOhDH+L9738/aZpy8803c/fdd5+bsz5HiFizqRrjBR/KG5JdOcsj5pS+BSHS74Qj3jqYO525xPdgOtvtMfJ0kvC9oueYy9jrTFhqSRZYmClVCE95R2dB2OXhgPfUx8g9w9CmMDMNZMBm76jFSjGPFROuCJFbs0BR4QeFhJkxslKEQw72ecfCLDIn6gjjpQ7l8izixaRjX06EalUWh8ghF9njbTJxrxP6nLDHCce8Y1WWsTqYs/oVIdIUhV4Hr3gbYimVG1piYlqKsNMJ/7doPO9SFlkTInvJTRpCpAVj7gwBhzD+9TVpoN9J7oN5wjSgCuN4d0puUKGOOoVNOSVzWYhUY65Hi/LgPSCwzwvTMwvgjyaOf6r2SDST6APOszBGbs4Cc0bF4V4RDovgBOZHkzUo3wQ9YhnkcSfEcHoqYMz/FJm4ft8ncECE2fmcwOkwDOz25qVZxHS0x1MpvFBRl7OhSvkMwcUGlSlm3hdAk2DC4D1t2jT+z//5P9xzzz2oKt/4xjdoamrilVdeIcYzZyf33HMP99xzzzk72XONThGeS04wIpyaiFG1minBAWcX6EPDGQfzx2ZiWdfcXO51XlRqVdjlHDsToSom1KmSoAzmLI8eYKczwaQ+TIekTS0rvy4N1Knxi/cmQlswPZEBJzwtxoQ44B17PbRE2A98p5BQI8qMICwPkSqNPF1wIy45R5xjh4chhHZVNiWeAsbKaI5CQJmXKd7ZDmNZsN7AfhGuC5E1qhBhXZYxkE9cPuIdTxZMoH91iAygTIvQ60w/ZocTNgMvViVckUaWxUh7UBShI/EcFDHDAzXOd0eEbTkX/6o0sDFx7BO7NqtCpFWV3WofSLMqh6PyYsFRCmbZNuCU5hj5YcFTlQ/2HBBHfwKzI9RE5ao00HrSV9Sc4W3s/2S50wVRaQM0Oz1jJMXG88u7oAY9c5llm3d0OqE3nnkUfasXdnjTY1kcdYQ3f7HASmuVUfvXEhMG79///d/nk5/8JP/1v/5XRISrrrqKz33uc9x///185CMfeS3O8byhKjcAiFhZYX5Ubsgtz15wwv6qhC6sbDHsbFu4PvH8zHDKLTFwNFfde6DoAWVZagFyVYwMl4yFcMQ7BlBecQkqlgm3ZMrNWeCOUgAxsaaVQE8uYDU7BJ4sJJREaQIOYxoeUeGnRU/BQa/CjxNhEGHYmdXWkmATnc8kwnbnKYkykGfpDnjTcGBz4lmKcFspY7f3dDkYQHm24EmAmcM6MrJdD2QojyaenyaOTIQZapn9vKD0SWRxUJ7Km34ZJtG60Ztn5sF82rQ2CI1OSBReSoT+TIjeZAaqxKhqs0LkYOKpVivfFLCFxWG6K8edELGMu0UDMzLY6oT1ianprcgiWQpdojSq4/Y046ZxhKEKwJpgr9ErljGWs+cqYDawG8usHZY5i1o9f0cuFXBUBMn/PpBTGy/PrARzMlqj0i1C6wTN90a1xWRlFlgYx9q8HXDCbicsDSZWVsHFh/vvv58vf/nLZFnGBz/4Qe69995xH/fwww/z6U9/mh/+8IcTHnPC4D1//nz+8R//kd7eXrz3I6Pxv/ZrvzbF079w0JU33tqjcksaeCTx7E4EzU4MWbQCq7PInBjZmFgN+5go7TGyJRE6cLQEYxm86G0ke1aM3Jqa8t1RLywJkSvSYAM5PnIs52u3qHJlFtnhhccTR684LgPmqg3SHHLCZcFq18PYlKVTYVvBEVEaA2wpOKpUiC6wJFNecY5hIju8y3VEhGmq9GCli6IKe71jvxcGnGdeiDyeOHYljqW51khzNOuu8niKxzLK/XldfGmI/GIpGzEhfq7gaYh2Pb3A7RhrRbFA2B6tCThNBRdtl9KqwiteyNTRHkxzuzzKvrSU0Z2XrLY44cGiY06Eny0FVoRIW4zMD8qM/PwKmCjTTFXelEWaFY55oT4G1gVlozcZgtnjBM4tTnii4GlX5Z2lEwM5W4AXCp7ZITIjKk8UPPUKdTHySDGhMa/3G+3R0SnCfFUOe6F9HAGsuVGZEwMlbJinUccvxyyMyuxo+jvlRm05m9/hbMe3y0PLORLZqmAslPM3YXn48GG+8IUv8M1vfpNiscj73vc+rr/+epYuXTrmcUeOHOEP/uAPJn3cSRt9NDY2Tv5sL2AMAy8kRvHyWp4si+zBMXPUJ7IgKi3Rml2PJ0KnM1/I6WREgceThGHvGIo21bckRFaFyIbE8XjiKaK85B3vHc7oEjMn2OUE74QV0TS3/6a6wEvejBk6gEbv8KrUIgw42Jl4kmgiUVUa2SUJDSo0E5iuNiS0uhR5seDYkAh71bEsU/Y4YTqRIKYq16rm1l4Qm+50KDudGdEWMMbJ7UGpDsrWxPF8npEuD5H5USlEmC5WO5+VXyMBZgalOqfuJcCbgJ1ppAqrS7/oHf3OsdXB3GjuP7NUWRgEBJZHk2odArYkjppoWb9gu4VDznFE4K1YNrrwpM+y05nH5sJgynxNqvRirkX7cyGsw0BLPFVA6oiz4aWhvPZeHuIaxgauXvaO/1sQXvGm836t2nBREJgRlV4xmYO5GpkdzHLudFCs4XxcbFE+3eh+EeNeP5d4alGuyKy8szRGdjv7DlVwnnCWQzoHDx4khLHTuI2NjWPi5WOPPcYNN9xAU1MTAHfeeScPPPDAKYqtv/M7v8N9993Hf//v/31Sp/CGco+PkFtXKQMi1OTr59KoLD1pHFo4wSJoi0oP0Fnw3FEKvCkNzAoZXd5kXfc5a2DUqAWBOdFU8HYUPN2iXJ8pjcCdaSSTwK1pZJt3NGtE1dsUKHDEOfZ4y75nBWgPymMFT0Etsx4SYaZG3lkKvBKVI054oejY4hzDGDe7ISqLo5UaHLA58dw8nDFX7L3vcIGd3lGFbdGdwJVZ5JrMJiL/pWha4q0o3ysmvGnYdgJHveDCie/36iyyr8rYMVcEY6h8FYgFx1vSQGtUZjg4iNIWzch5jiot0XwxazmRgXblOwXnhDklM7xdmkVe9EKrKgNOmDZOwKtRm7xszuvOS6IyJ9ce3+tAFWZpHPdLfkWI9IswK46lta0CCllkqxfEO6La2P3KEFkRlAa1667YAtcwDl0xw6igDaOaoeVseqLwOyBCv8Aw1oT22M5hvN1DBecQZxm87733Xvbv3z/mV/fddx+//uu/PvJzR0cHLS0nxrdaW1vZsGHDmOf87//9v7n88stZt27dpE/hDRO8d+TqdqvyQFWuq5aNB+r19J9de1QaUI6rjYl3emFFiCxLI53eHOPnB2VILHO6LjOxpf0JdDvH0izlB1WeEsLPlwLNCvUh0haV2yTQ4TzLauHrMTCYZ3azFVoUel1ktzNq21B+giomxtSdKw/Wq3JHGmhWpcM5FgXL2jYkjkNRmSXGA0+ANi8szCKbE5Oo7fDCswVveireIl5zVLrFsuG9VSY01YBSP6of1eWEV8QhDhaFyCbveQkYzo87Lyq1MRITz3EnXJMFWtSMGDYkjulRmRtNcjao8oJzZCg+cdyaRRao8vOlwPH8eoAFxXIpByzTPhShhI5ktldmVqba5s/sUDNN4R3pqfolRYy/XhvMyq6xYJ6lBYUZeeity88nYlOo5fp4Gdu8sMc55kQzZHDAVVlkQGRCjZ1mVdaEaM7zZ3xkBecSZ1s2+epXvzpu5j0aMcYxk+WqOubnbdu28eCDD/LXf/3XHDp0aNLncMbgHWPk+9//Ps8++ywiwpVXXsnb3va2M1IEL1R0OLPU6sqZHrluFY8UHAMirM1OyJiCBeH+nOlQD7ynFNnilO3eascRR1cCHuGaEJgTlb+pTtjvhOdxHBVhfqZcmwUSgRedOaz0a8KtwRgm03Pe8oM+8gOgH2F2VA44x3FVy14jiEYOFqABk0H9fsHzsvO0auDG1IZZatTkZBtUaczLD4fyOvygmJ3ao96x2zu6RZkelegsiB0VMx+eHSCKcm0WecI7tkcz71WsYTdrlFDUPmflifagdDpnJQSgmAVe8MK/FBNWBitXrMgi63Lt8X5gm3PUeNgdrCTU4WxQZr9z9DgHZPh82GNOVA44Ic39OttVuSoXCdvhHD8pOI67hBXBdhxll53yzZjBiNnDVNCgcLkqnfmC1e1kZBEpY2O+8M3NIm/J4pgAfnIiV4Nl8BPBYVLCFby2qJ8RydLJX/ekYJ/urFmzJnxse3s7zzzzzMjPnZ2dtLa2jvz8wAMP0NnZyd13302apnR0dPD+97+fv//7vz/zOZzuF8PDw/zKr/wKfX193HjjjZRKJf7sz/6Mv/mbv+F//a//RXX1xZEXKJYdLYiR3TjmjroxDjljRmQwxk9SsdH1PoEVeY2yOiq93lGI0IRSjJGdBU9JhCYVBhLhCKB5RjmYOHObCfC9gueQE3rF7Kq+5hO6nfC2NNAYIt8uJvQANXlAfNkL05ARNcT1iSPgmB+U6ZnSmZgm99IM3lkKfLU6YZuDFamy0Tuit4bsuhDpD5Ci/GMxoVOEg0445qEmws+WMtaGQMz1mwdFuHHY5GnnOuWOLJApbCoYZbH8ZdnmHdu9o0nNgGJr4vAR3go8HSP/b1WBbicszKwRWdQTGtfLorIvRCI25NPpBEWpjcJMVWpE2e4dS6Jy2EGfCtsSx/p8gagGqqOyKirLYuR7Yhn29BCZm4t6eaBRbRDpsVwD/dacN50CwzK+5vZhMTZJEVvsI1ZP73Hjs0U6nHBQhOHEcW2INOXlm4XBmo+vRtc7ABu8mVpfkcVzOgh0vhCBgw6mxTNb4V2I6OtylIYm/4EVqydfY7npppv44he/SFdXFzU1NTz44IN85jOfGfn9xz72MT72sY8BsG/fPj7wgQ9MGLjhDMH7y1/+MitXruS3f/u3R/5PVfnMZz7Dn/7pn/If/+N/nPTJv57Y7qzpdESEmShHndCQ34hOrU7qc772cbGbr1GhBmWIE9rUf1fleapgQytXBuWgdzQqHMuDzVOJ0QVXBqUqp5J5HC8k8FzBWAlvLkWaY+RrVQX6PFRrZC12gw5gbJNlwXjIToRMlX8pmIv8gCp1CPsLjiG15y6NkUxsuGePcwxpoM8LPZjH4nQ1h5+jUlZChPkhUINpX+/wntQJN6WBNUF5JbdF2+SEemBRFnmh4JgblCvSgFd42ttwzyYnzM0pfFdl5gTUCMwJ1tgkwm1p5MEqT7dArQrXBRviaFRlRlTmiPCywkFvjbzLs8D6gmcIyLBFcxCjGM7MB0C6RPhBMaF1OGVuVO4ezjggjlY1Pvw0InOjaaD3AesTz4DAokxp0MizeXlldR7oy+gDnkocw8BSbw3qiDA3RgYRepxQf1IAvzo1aYGmaFROgBe9uTGtCnFcadpBYJcTmvTETmY8HBN4ORHq1Lwu6y6CbHyDdzxY5ZkelF8azi6qmuz5ZJu0tbXx8Y9/nA984AOkaco999zD2rVr+fCHP8zHPvYx1qyZrGTeWJz2+v7oRz/ia1/72pj/ExE++clPcvfdd180wbtkQ5HUaqTAWEnRNlVuzXndw5iBQ48wUnZYmQfHbU4YRuh1wopUWRoi/UBvIqwMSq9CR8EREa6JJiY1IwrzYmBeUF5OHDOi0Q53OejypmvSLUK/UxZmyjRgRRqpVeh1jrkh8t1iwmEvVKmyNkZeKnjqorI78abVojYq3xyVXjHmxvI0UhMiwTsOOgt2O73QlgWeL3r6E8dlaWBvYlzsbTgOirAjDRTFgvHu3N29PhG6xMSgFmbChoItSseBQQf9wWrYx4CD3nEAuEzhI0MZDsjyCdV9iWdHAvM1cBzTKRn0wqosstvBXnEcSWwCsz0aS2eaOrrEAvitaeBGjJf9nWJCEUYcj54oeAZEKIVIo56Y2gQrVVwWIj3OGpsK9GKuRRlWwtnphYYIGxLhn4qemUDBCTPVNN2P5INDe5zJAvTnujUveUevCG9Ow5hhn24Rgtg1Gm9DvcsJPy4mDAD3DmfjjpErJtvbh9CgEVFjEM3KmUcXIiJwSIR+oOECmD680HDXXXdx1113jfm/r3zlK6c8bu7cuZPieMMZgreqjqu/XV1djXMXg2KxYXkwze1GtW1/uVrfLRByWplg21SPBYVELCgdEeW5RGhVK7u0Dxlta0mw6cq5qjzvHfOjMhADB/EcddAe4M1pxvU5tWv2YMojiWdjwZQGp0dowKY5B8TxgaGMGfWwJyo/KXg6HJQKjhJQI8pVaSQ4YUEWGUKYGSKJ2K7ggNiQUXtQ1oVIowprQqQnKt3A31cl7PYORQnYdOW+xNOg5oDzfOJ4IfHsd8LVIXJrGuhUZXPBkWIBQ0RJne0EWqKyywsDCD1i9ffd3rLvZuwmHtE5UQueB7xl+iWUXc6z2TuuzAJPFBwvi2Nr4pgZlYeKnpVRWR4soy2HtWrgh4kJZtWq0ifwWOKZHyKFfJe0NoumP65G4+sSMx9el5nqYKNaIC4JeJS2aP2LDuf4QSK8lPuXZkCXc/zMsC1A+xzsdcY6ebjg8cC83Js0CvRE24WQlzema6Q+mgZ7pwgDovRjXpr1ahOmA0A99j7aTpPCJRjLZHEwZ6ZUcr2XCzQDP5Rfj8tC5C3D4aLKuoGLUs/7jDXv4eHhUwL48PDwhGPxFxIKcMpUWj/wbOIJwLW50FMNNqq+PJ+YmxGU7QVHosIhwYSZ1IYt9jjocjbIMcsZ7S3LlD1FYQ+OGpTnk4SuLPLm1KhvDjjohFVpZFWWsSvxzFRlVabMQlkE7EZZFK0e3OssmCxOI7NR+vJ9XSNKMQJOWKA2/XjImyFuQdVMAaKwJiovONvuR4XZQVibpex3xiU/6M3B3mPmygi0BWVYTZN6E0ajK7MlqiJcFa0G/6RPyMS29AMOGiI0RGUW8Lw30+NaYIsXDjpnmhcKXy8mdIswHXihIBxxniQoN5cCvbleyUEn3JgGHCeYGUMY97lbzKvzkIgZIjv4t0MZqZiQk2AN6e8UPHu8Y00Wid6NjKX3SZkVYpOZkj9nliqb1ah/tgApe/PpzaMibEmsWdkYYVXewF4eIgOYtvpXqwvUoXhNOeocHpNe2JQvOPODslGMPbQmi7y9lNHpzAP1sBg9cKbqSAYvGDtlMK/NH3PKcWRSpsanQ8BKiJlYQnOuM/iCWq9gYWBEDfOiwqUUvO+44w7+5E/+5BSvyj/6oz/irW9963k/sfOJhHySUBjzJTZGALRnuUVXFpku0OkcPV4I0eqPz3pTtatWZVmI1CiUvDAvRpqDMkeVAS8cEZtMbFSlDmVOZsMcNQrDahTERSHytWLCIWCm96yOkZvSyAanPFpw9DqhKoPLNOJVOSKC845dCI8mngUhY04wOdp6Ij9ynnkFT0sp8OOip0+EuUFZFczMt0WVzYnpke/IKXvXZoE7hwOHvfBQVcJRES4PkWl5vbVBIXVKl5qC4K1ZoAFlVVDmhsgeZ2Wh/wVkxYRQCtyU61wUgTVZYLN3JOIo5PXnAeCgKCUnXJVGFmaBFxLPIMbCSUZVFauBW7PAdrHyTLcXkpx73QgjBcgh4FnveCzx1KCkamP8YGWPl7zjgJBTKoVehBvSwC2qNKmy2QldNUXIp0AHRdjsHR0O9ovjHVnGDbkt3B5nvpkDKI05l3x2UIYFarHPuwC0RtvRqQolUToEDnkrS+1xCSUxrvjsqNw8SvukmH9HwQK52cedPY4LOUsKWmI8J6p/JWynVY19r27MvT0v1NLOmXA+a97nC6cN3h/72Mf4pV/6Jd773vdyzTXXkGUZTz/9NLW1tfzVX/3Va3mO5xxVwPVZGPnijQfBpixbgefEhIJac0bGoqBkYiJHq/PgMCMqfWS0qWU2zUHpFJMyLURhgxeOCGwU4RdLkdo0MDsqr3jHc4ljHzCv4Lh5KHDMCQNeeDlxNEShREZdNLGs9YmnA+U4SrcXipLwq0MpGxPH3xcL7Eocg1nGbWI86GqU2Ro55mCTMwODZZkyRyNd3tGmyso00uEd27zQi9KNsCoqN+bZ3wExxkc/sDpYCWJWNGNiESF18L+rCuwDUi/chn25VwRlbrSacHsMPJk3ZBdFozc6hX7vaFFlXoRjUZmmlumX3XTIj7Uui1wDbAiKFqE92CJXxlGBhwsJT3hBRSFCk0A1xp55ypnwU5cTpmUBxQa1thccM9PAdWmkr+iZBrShLM2UnoJyZynlX6oSHMqiPDuOwNbc83OGwr8bss9nFjA7CyNJ2Q2pCVwVsTJdl5iMwrAog17wKAcQDntHwxk8Mz3wasm5Rk1VUpiStv3pMIj1iILANblA18XAiDkdLqngXVNTw1e/+lX+5V/+hRdeeAGAD33oQ9x5550XJc/7ZEwk5dkjRh2bE818eBioBRbEwCA2pOIVHkk8TWrMgukIqUCBSBDHroJjKEa2FIWjCDsTR4eaFGmrKntFaNRIXRSagZvSwIpgQkYlD20RkMiTiaPHQ0OIPJUIO71naRaYo8qgKvcXPT1YGaElKmszy+SqFBYEZUUwzvhmLww7q4m/PYt8zTn2ijBUND9M0fx9e9iunvlR2ecERZiWlxS6BL5XNBrlDu+5LFjt+KA4+rCseVviWBWVWtURLY92hXenY8tt/yoNdITIzLwefHNq2h4v5wyhmTGyLCoHxKRSB0Ro1sjqoDjMgaguD0T9eQOzAWFuZlOXg0AJYZ+HzUXPVgerskhNVG7LIusToYCZQ9Rh+t4CzCnZoM90hZI47ihF9uVToBucUI1lsgFYm0W+W0joc/CLpYzZkXzq1jRsmvK7vFyPB5vuXBusab3RO3qjUHOe9+EFTm9KcTZIBUrOpASGERouiHD2xsIZ+wree971rnfxrne967U6nwsGG72n38FwiLlpgWNZzvmuB+qj8rwXXkiEY5JwcxaZn5vmNiokAnNiBLWtc58o82LkOI5egQXROMc7nbnwzAVmRXPlmR8id5UCqPJk4ticJByJkeuiImo6Jw4hi5EfFq0u3wRck9fX26NyKOd01wJrgtHntgRhWyIcccIOZ+YFmSjTg/kv7nGwITHu+mwJDIvQ6RztqibUpMrziSdiXN7WqPSIMC1E5onQh3Gfd3thk4OS88yJkVWjNDki5NRBWwxHN+BqsFrxQ0WjC1Z5T3dQqtVYHt0C0zAjZrAabr8q7dEYN1dmkStSk5Pd6IV93tMvNnBTH2FxtADaiLLbO9Zm1sN4OvGm0ZJFdmHaN6g1Zq9MIw0oGY59XjhUTLgql/FtVjM8PuZs0T4mwmxMw2Zv4jgY4bbs1IzaaKR2XuuyyIE80F9MaFRznQ95Geqix6VU8z6Z1nIy7r///nN+MhcS2mNktzhaI+z11ugZPOkxjXrCNsursjyecCe/Jg2sETgowsbEMQ1lN556DbxrODAd5a+rEvZ7R6pGXdvtrDSxw3luzALVIsZKidGYJd6y5rlq1MUDiQOERoXLQ2CmGkvmgaLjtjSwPFMiJr3aL3B3KfB9bNLvoYK3MXUNXFNSlmmkVPAsCCYje30WbduvSq8Trsgi3c5KP5cF5cos0Ivwf6s8UR2L86x1qyoZynbvaceC7uhN5m5nWXSdKjdlkR8kji2J4+2lwP+/vT8Pj+uu8vzx1/ncW6VdtiRLlrxvsZN4yUrihJAADQkkOEkH5iHAJD3DTKb5DSHzhH5I0zQPvTB0A0NPaJbvdDPDMAwTulkmC+lpQtJploZsZHUWJ/G+W5Ily9ZedT+f8/vjXMmyLdmSE1kq+76epx67pFLVvVV1zz33fM55v5cGZb9Yr/heZ9OmkcK5SWC+07RLw7ow/iV2PJaLiDRiRfraa4ueDbmInUBQHe7oWOmVWwaL/H0+Zk/a4rfcK9uiiIAgqlSKLe4OAAdFSdLXr1Ll9VSpsdMJFySBearUJJrausHvFBM89pxgPfZ71b5DJ6ISy4pfiiLO9iadUCo0qU6P+sEZypjBu6+vj8HBQa6//nre9ra3nRalkhPRLabdXI0N7ywJVr+sTZRDo+hSzA7KRYmSqGVnrWItYzOCUoXVGXc44aDAAcwsQdQWjgpqjjS16ULPQsqoSwLPxo4I4ek4olNMw/m8xLMtcmyNTKCp3gdeihxVXpjjA8vSRUcP/LQiz8bYUVB4uw8cFAeitKXtjtVqphAvOEevCJE6dsUwt+iZqfD2JHBZIeFgZDZvQcyot9+ZVGsuWN36l/mI18TRLxA5uK7fczbQUvQcdI6FGnBqEri7BA46YZbN7rDFCYiNvz8fR+yKhB/n4b0Fb5rYPnB5YnrrcdoJNPOoFrlGtXJHXgPPxkIZQrMG2uwj4LIksAXHQRH60HRoSelQG7bJq1JAyKOgJkMwL13j2O+VvaIMiLDTCa+kuunLk8AFSaBalVciu6ooiGm2z0mvul5zNg/wlqKnBottrznhQFquGm3qcqszjZo9TmjIlAOnhtMp83700Ud5+umnue+++/izP/sz3vnOd3LTTTcdo0FbygxNu81SCxS/TZ1d1hZNCnbo8xmpS9GLjVfXpUH+bYnnpUjYHDmej4QGlF4sc20Kyn6Un+dyeDXPw84IXhShpQDrismwGa8Az6TTinucYyDtrW4KcE5QDjqlVa32vNQre5wZROwRx2wNDKbtZn3Oxs5fjYVycSxJlM3OarsHRWgXIVLlAu+pUBu22eMc2yOlVs2kYGMckaRjzrNSg+KyoLyUi0gEDgVlT9o54jQQqWNn5LgG6PNQ9J7VPvBqZAtaL0WOTueY4ZQrixagI7X3vtYH8s4RBDbHJrE7KyidAkvD2At153il2Rd5KhfxlLMF4+oAByPoFuE8sf7sylSedlEw3e5H89YB1OWsDS+o0h454qAUPSwAXhehywlLfGBn5DgnUSrULNgWBeXJyNEjsCNyzEjfswERBlB2RObjODTJ2y7wm1zErLTvu3qUEsM5PrAvkmnbw32mUGrv/nFr3hdffDEXX3wxAwMDPPLII/zlX/4lPT093HDDDXz4wx8+Vds4aexOpwn3BniLtyx75PjRQbGugnnBhjr6sX7jfoHzfKA5DbqiNjQy2wfKMUnP9bGjXGGTCHucTeUt94F2HDksKJ2dZlkBeBA7yGeq8v8bTMwSKwCYwl+fmDzqCu+Zo2bb9kjeWuueiJ1ZsvkAmpoFqGO2T/DA1tjRDTyv4ARWFQNzCCwoJuxLhbZmB+XsEHg6dgQRckFZ7JVXY5Oc7RFhVlB6nTBb4fpCQqsIz+QcWyJoD1Y3XxACW2PHRiLO955d6RDL65ENrvQ54aIk0AP8Kuc45Bzneht8GhChQ+CpfMR8r9SrLWYezR4nbHNife2iXJhY33Vz2pGjQnplkb5vaVCsxOr0u51NkroQiLHXXIx9lp3YFVgQK2VdlHgbjEq7YLY5WzM4IMI1RU+dKl3O7O7anDDXB/qcmSMDbEk9KbuFMd10ZqmS87bAnDE1nFbdJiMpLy/nve99L5WVlXznO9/h7rvvPi2Cd6MqrcEWCmsULi1aAN/nhF3O4dSMh/sQdjvlgNiEYoxYmxvwTM6lNmCCU+GW/iJ7UrGrjkgITliV2MTZ5T7QG5RWJ8xNg5JiHpcO07KYF0xf5CyvrHfwamzj3wu8TVm+HEdESWBlUHKDnq9VxuwVeCDvgIi8wrLE3FuWBNOsLktbEtsiYZZXKnOOPUE4RwKqyiKvJkWrJme7ywnzgvlSbhbTRNnpzFj4gmKgDJsMPAvTth5M1RDBrka8WmnEi43e/zyVnJ3vhWcjx9k+sDQoL6vQrXBeolzgA/3Ar3IR5pRp2iT706x5qKUzAI/Hjl9Gjl5nWuzvLniWpa//zoKnzVkb3mYnzA1mXqyY3dx5iafZ2TZ141iigbmJck4S+HVsp+6ZqixNTBpXgS5nn3WN2km3DGW+miVZjJV0fpNelZyTBM4d0dXREpQ+MUmFsVrpNjlhW+Ro0OP7XGZMMtOgFDIRThi8n3/+ee6//34eeeQRVq5cyYc+9KGSH9IZYobCW0d0AwwdXFudI3FQ503BrizAplgoU7tcnxXMuWWDE56MI3Y6aPSBixJPnxO6RVjpPcsCnKeeDTlHi7d2uH6xRc7XUnEij11+LwTWDQYGBZb4wGyFuRrYJxEvxJa97XdCRTDvygaE5YlNWx7MCQPBXHHyKDMIHIgdO70NwcwLStBAMRcxC2VJ4ml3jv0IS9TaAQsidGEnkVU+HTF3jjlqDjttzvFqzrGgcFgLZlMkzFbl/MGEFlXagM3OkQ/KxrxjC465QckJLCwGloZAIsI+ER4qj2j0gVsGD/sydjq7ajnbey4sBp7ORaZNkwTOTYNzhwgvivBM3pFT4ayQ4NJF0YMCbZFDsGnRFYkNGil2lbUhLXO0hMAhJyQoVWra7L/JR/w8drQAi9PFy9Ua2O3glSiiIShXJ9abv9MJXSJscuYKvzE9WeeU4dbFIRYGZX7wdIoMGzQczUTLraMRsOy+cjqkhBmnhDGD9ze+8Q1+8pOfUFlZyY033sgDDzzArFmzTuW2TRmrfWCfmgEumJsNWFBdEHS4tNIclHqvtHhY4m3MfrNzeAf7ggwHnOZioE2EX+UiNoqQONjhLAOd7wP7nNAC/F4hMQPf2PEikAtwbtGmE1+OhLyHFyKh18UsDUpzSDjHBw5FUB4sc16ZelP2KmyPHLOwK4wWH0giYWXRc0kS+HHebMqag02JHgS+W5ZjHoG3FWwMPlFlUKzPu9sJUdEmUDsFnogjtjphsSpL0p7yHVj/7xZnZsWCcGWxyMWJCW55zDjiqVh41QkvRzErfHFY32Ojc8xUe412Z1OUmyNHd+zYii0Qz/NKk8BSD83ec/2gaam/FJmQVBHYFgkHccRqDki/jaxn22NXBJE6Li56XowcW2PHvsgGrxqDshwTYDNRKtuOnbEwkCjPp50qETosvLVNrIxSGWxNY7QpyHYRnosd5cBlxWMfszQojfrGJGS3pL3xM1WZc/JPk1FCHDd4z5kzh+bmZp544gmeeOKJI37/N3/zN5O+cVNFoyqNaUJewLKpPDawU8QWxGambWLvSjyRKk/lIn4TOZZ4z1leWXBUfbNP7PJ4e2QdGtXBxuTL0989B8zHVO5eiSIOYM3i5yaB8qBszEU4lB2xQ1VYrQkFYJbC2wthWBCqJr30DthC2GZn7urbooh5PrBYlUrM8KHVOV6Klc/0F/lNLmKnwC4c3887FoZAayR0IlRi4/VrfGBALPt1YoNOkQ/DFmXLgP2qvC0tEdSrqTNG2L7visyQIglKUWz7Rn4Bl4TANufoB16JHRVqo/QHI9iPkBdlOcrNgwm/M+ipRqlTuyLZEzlQWJEECuIoOOjE8ULkmKXKNQXPSu95IY7Yn9bdm4LnX/IRs9N+7IsTWFEDj3nln/KO/TjODYFzioHGoLwcOQYcXFkInK3Wf/5MznEAWOXDmOPrcXrL6ejmwxG2AP5GSLDs2waTMiZKbV2gOAEzhlxu6mssYwbvv/iLvzjCqudMJY/VgRXrx30mdrSJGQ53OOtKWJAEKrBe74M4KvVYw9t5QVkWFJVArOag867UWf7/pcM0j+Ycb0mUfRJ4Pe/wCGep4pzJwrYEKPNWArmg6NnthB6ERcHKA9b1YBlhF/BC5Hg9jugBykSpCEKbCIUoYpX3VKIsSCzzvyAJLPKB9bGwMYrYKUKELfItSwLNgKjyk5wpEi5NAq/mI54vi5k74FkVAjMwHQ6AFYWEfg6XAzwmFdDsbYFvuVcuKfoj3IsWBKWA2bftccIVxcCSEGgPQusI8SbB9EN+lovZ5+BtSUJFMLmCuaokSaCI9bbvFyHGlAfnBujxgQQ7+TYoNA16KtRaO+vT/U2cBcMtkQXvdxWtDXNnJHgVyrBFxlZn+icCPB85khBYOMqiZMMp0P1YGpRKDWyMHL/CTqSlPK5+qjnY5RgcHH/wLiub+tg4ZvC+6aabTuV2TGtGmshuEevOaA62sNflhHOBawqeusjx07zjb+KYtxUDK1Lp0IMiLAh2AHsch3Cs8R4FFgfldwqeVyvtEv3FWKhFafQWpWqB30YRXcB1ScKyQmB9HLEvPYnsdsJAUZiPLa6pCLkQeDkXsddFtAuUq43IL/NKUYTtzg72KxJb3NsSOd6SeDrFscs5JCirE8/5Xk3f25lm97/kY16KI5aGwGVFT4eDNudoc2kD9wi2ps87pEzY7YSlwQZ4+sWe72e5iFcim7K8yHubTMWkclcngfkhsC3t7BgyPRg6ZAaA7ZEpEe52jnPSQZ0hJcOWoLzFB84KRV6PHF1i+uDLvdIrVvZwMNzNopgBQiWw0AcG4whBSbCfeUyzpkeslREgVvO57HZCTmCXcywcQ6PkjQTSAUxtsW7EuP3R5DCHp15nmfxI6YCM05Mxg/ctt9xyROYdRREzZ87kqquu4sYbbzwV2zbtKAIzgFywS+RqhYqglKmJ5T+Vc2yLIpyaGfHWSNjpIl6NhSuKnhlpJ0lRhSoiKiILUtckgbXAPwcb+a4CygXm+kC7mJTpDGxYZoHayH5XEMRZzHw9F/GaWhvfJUlgbQGaIiGvgbwzV/qiwMuxlRDq1A72IZfzpd4C/65I6BMzrOhxjr0amInyZC5mDxCJXV2UqfLb2FEbYE5IaAlm6LxFTWr3HG+CVkGgP11MXOYDguN1ZwuWHc5Ro4E9kVBMAouCDGuui5rW+obI0S9CJ1Anh1X2djir11eHQHdqWvBSJDigWq1kNHQumammvVEQ27+9aiejAbFSx9mpQfE+J6yPHDuBcjGtmX4O26VFWHvoEG1ikrHlCu9Mr4JOxnuyD9OCqQ0m2DVaPrclEnY7k/19a6rQ2Cemq1I54nEeW0geBPKnIHAPYu/bTFVmlPh5QsVuE3n8VDNm8P7X//pfH3E/hEBHRwff+973OHDgAP/23/7bSd+4qaQPk4wd2R1QhmlR9ImNaOfVSg7r44hDKDODiRutLnoWBxufbs0JSxKhUm0hTFU45GALwuKg7HQww8NOTAhrANgnJtWaVyjDuiHmeOWQKq+mGezGCBYF6/f+ec7xfC5iVdEzTxURmO09eWeLZOViAk17I0dfUC4Z9MSpfVuNmsFvpQpnJYHdCIHDPcoeG2SpFft9hSr7nONn+ZiV3rPYm+XYr+OI3UCZWBfKxUmgSc1x6OdxxLIQzC4tduxwMMsndONInMmo1qWBz2EdEzFmxLvNCW/zgWp0OJB2OlMI7BKsGwYL7D1iuiS9Dj4wcDjQLveBXZH1YD8RO3ZHZrrQIxF1IaFG4dnIscdBM9aFtMwHqlSHWxDhsHs92JXFDmcSudVqeu8nQ7sTWp0NT80JflSVy1qF3VhZaEBgX2RGFQedeY8OoZAKpEHabTmpbHWm4ZJL1wxKx6Ll9GDM4H3NNdeM+vN169Zxyy23nNbBewB4KmdmDRcmNjbenmaQs9UcahJssXGfs1NwY4CF3lNdsA6Nl9MFt2uKll0u9oHdIjSHQLOCV2GLc2m2FNgJbIgdqjaiPSdAVVB2xY6rioFOER4sj3EqvDNJCFhrYB+OBoQPDCbUqWWlf5ePeSE2U4iVSeD9AwUC8GrsaFZYpJ4NLkqDtnln7oocC5NAwZl34/xCQrtzFBkaKArpIp/y92VWlmgJsDYxg95egVZgV95xQTFwrlh3yDOxs64MZx0X+wXeXkg45IRf5LDXCodHyStVqQ92stoW20BTuSr7nFCLLcguTey9HEgHX4a0x/8559jrHAWx9/KcguegWOY6P5ha40EnmM+sEqnwWhRxVghEYmYJFwJelYai9eYPJVid6YmhLihLQ6ArMiW9xWH0hcoidjKJFQZTaYXRpkVnBaUuKDOCHvE8IX0/Imy9ZFbww0qYixKbej3azb5esc8IczGabKqxq6RaRr9imCivObvCWO0DjW/C853uTNitaMaMGaf9QuZ2J7zgHHNSYaFOEe7PRxwS4d2FhNbIAoQE0y+pCsrFPtCe1sDLrMMQSNv0EjM33hs5GoFyr/wy5ywbxw7UBrVhocXextTnqC22LU5V9ZI0e84J7JSIGVjnx44oYl4IHHKODpS94tgcCQcxDQ9JSyAXJoHLBz292Gu6yILi3DR4zFPT/s5roE5hkZqS4AuR0OKhNTJN75aC53eKnh4nrEgXasuCshgrVyTe1PVedcJF3toQdzjhkMCDuRwFgZiE+mAeovODlXF+mYuoD6YhMyhQJNAtsDkSXnUxszAz4jq1adf3FE2a94AIj8Yxi0JgSaKsdEpHuo8bIiGIlYJecqZ2+GQcMSNY94yIMksDs4KywAeq1E7KT8SOxV5NZwVz7nkutpOFOCH2pmJYidAyRsb9UuTYl9brG9Ss3UYbf6/CFsRHUsAWxosIFyXeymgjfr88jPiCHUW9Qh3Qfvyv+JvCvKA0BGt9fKMRwWMOVoo50J/7xjdvQoz9jo79+KlmwsFbVUmSZDK2ZdpwwAmLQ6AxWCDrFmUQIcYczHvEAvwCVRaqsjy1LnvdObxY9nOJt2GWGMvCnFoN+4AIL8ZuOHN6S+J5OY6oBd5T8LQ64Wyv1KtSjIQK0pY8Ed6ReOoSZXssNAcre+SwK4WOtFUuCCQB5jlzhF/rle3OHGQqFJ7LRYjCWUVPT84WQstEeFXg53GOfgfXFhJmpvuNOCrTMlFOzdB5WVAYEYhymP7KKmBhIWFD7HgxjlAJrE1Mf/sXcUR9CGyLrf1wSyTsiuyKoTkoO2JT7asJgdYoosnDDK90iWV1g6lzEQI9kta3gUdj4Rd5R6SOtd4WJCs10JG2HA4Kw9n3C3FEU7D2xFdjx4WJZ1aw9/fcNAhvwbTBN0dCczrA9Upk1mZVwVpAn8xFNIbAReki6WgMvTs5FCcTO9AGxMb3VW28fzovPFa8Sc8TAZVBeSF2NE/FkOlEJ6WmQf465neqq6tr1J9973vf4/zzz5/ETZp6zvWBejm8ABUpvLuYEGMTcy0hUBHbtN4FSWCAw0Ml2yJHi8CaYJ9vAjydBuuliWe7c3g1M946VSrV+n/LsAy8V4R7yhxVwRxPlqhyUQhsAstKI+vtdpi2xmuR6X8/FdvIfhmB9fkc/SqUh4Ruhmy/HE14EqDNwW/KYnZEjjJVzgqK4mh1ZjSQpN/MMrWhGlRY7q0SPtqEYHdaFlkNnBuU9gB7YqFDrBukWmF5CPQmsNJbJ8SWyIJmu3PMD54n0/pxY2r2+0LOsSDAxcVAIgwPR+13wgw9fJm+NNgYe5TmToMCq72yNHj2iF2BRAqKtXeuTE2Lt0XmIp87KodaCnSosmBERr04BHY6xzle6RDLEtuc4xzvjymFDAK/jB27I8d5ieft3nraR3vfxqJGTQY34bCBw5lAEGF5evV1yjmdgvfatWvTBTb78ogI9fX1XHnllXzmM585ZRs4FdTqkVZRL8aOAyIs84Ec5vwdq0m/RsBLsaMLwaUH/c7IERGYr4pTy8gHgK4oYktkk39r0hH41525xJ8D9KqyWaBXHBtioQ+rKV+aBOZ65ZeR41AqlLVWrUd6UdqadnbBroa2ibDFBTY7eCUX0RWUVanlW07NsupZJ/ysLMdu55irgZxXmjQwN9WTXjnCf3J2MD3vp2PHlsgxPwnclFh/epnCXLVFxX1il7xnY68xA5NdrUjfxjlBqQ2e7+cjCsB7CgkdznFZMfCzsohdsaM7MfedvIMWLxTSk2EemBP88BBSfkQ8W+mVOwaKafnJetNr1TI5h9KlsCgEzvWBQ2KyrJ1iGjILvVKP1bO3OCEPXAG8JS1jBKz75/XIMSeYz2WVgmJO9aPVsLtEeD0VL+sURwV++D0YL4KVJM40zvaeXZF5rp5qTquyyauvvnoqt2NaYk43wkG1Nrmhg3C/CIPAv8QRIfHMCMqhyDK8gKJB2OYcvxKIxVzCZ2KKfr0CfVjP8lLv2Z7qpA9g9cp1BU9NDP8UOzY7x1439MUy6dECSreD9eJYGnR4KGQoEVioyu8WE55yjp/HEdsQYueoR9ioJo51TrApzNkusNjDMsxcoU7h6cjxQhyxyptJrU+ffKcIm52jPQeXehsG6cV6nQsiw+bN9+ZiZqlyeeKpxEbMt6VDOfud0JX6aC7ycG06/LI8CXSQ7qez92uxD7wYmVTAcq90uojZaU91TVAuScJwd0N3OiizMCgdIvwyF1FU64K5MPEjLu3tvWpWpTltx+4ReCwXsSF2LElsoazLmQJiIW2vfC1yDPrA4lSC4Jxg2u2Px44lXoffp41O2CtCZTA1xAv8m3v9v1/MRHluMGGv0416hfpTsdJ6mjDhmjfAX/3VX/EHf/AHb/a2TDu6xNTenMIFRc+QssucoOwTpQeh1TkuSzx1aqPXA2plhA4ntDuoQKj2Vv5YlWqm/HPeLGXfi+leHxRoUfinSOjDcbH3NATlJzmYH3S4XLHUm5tMTmyBM6eWHY5s0XKYPvgmp3hRnForWnXa3w3mJ3lzqqA4Q20QpQBsFhsoSsTqrrsQOtMWwUWYtdusoFSnGfV2Z8YDMxXOTjx7sXJEZ1DWpCe7B3MR7c6xTwJXeM+SoKha7dgDz8aOWIRPDCZsiRzPRo4eUbZF8NN8TFskHBJlaSGhQ6yEVcS0R4a8In+Sj5ip8LsFz4F0TeLRfMycoLhCwgVe2e6svW5BONz1kTadUKlQ75X6oGzFTJGFwJJgXqBFAk0+0JXqceexHv4eEXZEMDsxIa9tkePFyHFWCCxJJzjfTPY4m57dHrlho5CjKWKluoyJcVpl3sfjnnvuOSOCd6UqPpgS4PooYkkILFKlEss+G1WpILWyUutA6MYWABu9EtQ6HPqcQ1RZ6pV+JxTVgmUh1YnuR7gnwPNxzJwAizSwUAOLg2W3T0YRy4PnHFUOYDrbC4OyyzleT11rZgcdHtjYJcLLziY5y0U5PzH/y7PS7hnFesoPijAvBJuGFMdOJ/QCF4VAQ1CejiMGgZlidfGKgqcCZRZQG5SimGlEUwjMTU8yM4IN2myKHJEP5NOOmhpsOvDGQjI83dgPHExFoPrERvQX+8ALccQm5+hOa5/zg2desMXIAREqVXkxdnSI4FXJIRTELMuqFbqTQDF27BTrBuoQ+EUc0RGZCe/aopW/XojMaWdV4jlPYWds6oAFTZ16sL7+i4Bf5yI2iikcLgsmo/vbnLBflScix0pv3plnhUBlgBpvQXSiB9ggtgA8Ws/0oqAURWkZY5inW2xIahY2Hj9az3jG6cNJBe+hOvjpTq8IkTNRpDJV9jrHIm/X2zlgRTDHl10iNKtyUbqot1uErQLexcxQpU9gpzgSrK2qMUA+mCNLjAVTJ1ATlHnp7aAILapsdI5BlCImM/tIHPNMpFSrp00su99IxEwH53urCz8VO6rV+pGrFean2erQhz2IZawC/CJ2vOYcHSoEZ4tx23H0SmC5D7SmC7c2ju6IVMn5wBOR4/VYOCdRlgYb9OkFWrzSFcEOcXRH5lJ04WBCUawev2jEd6cCmzDtT3vCHXbpvLboGYwdb0s8WyMrufQhvByBF6E+mDhWv1jwbwnKlcVkuDxik53m9FOrSp8IbVE6VJM6CtWq0uGEINAXZLgXvRlYm1rKPRI7upywygdqVOlChgeFBsSy3EfzMU1Af9FODBcm9t6+Ejv2q5Wnxru21Zp2Is1U5cIk0CP23RiaXqxV62Qai35syKsP6woqPzMO0zeH02nB8nic7n3eQ1Sm5YEVIVCHMueok1YReMFFdAgIwurgKVd4NI7Ylg6DVKIsClAfAlsix1mJZ49TvAgbnSMSaPbKW4FVxYQBEfqxzG+ptx7kejXBpY1O2I5QFGGHg6Uh0JZOTm52UK2O8nQSsVrh7GDu6NUIC0aY4baKcAihVu3vn4wiVGGV98QCPSjrnemvLFETbTogVpcfkkudhS34Nav1iO9O6845UWYGoSiWiVdgo8S/jSO6nHDjYMJSVfaL0Jl2kcw+KsiUYR6Ulaq0O0enMw2X3ZFQpTAjUpp8YEWwFsQ2sWA1dC1bozAbpcJbN0+E8pZioMFZAKxJpzLP9YFDmGHCC7HY6D6Qixw5VXMgSk9ea1Oxq6FstibN8uvT13zNOQ7kHLNDoEwVFehTK9WM92jpFnuvDmG+p8/G1kPzlsSPa/y8QZWzvYmIHc+VR7FhrsCRZaQzmtMpeD/88MOj/lxVCeNwxT4dqAauSPyYn2uMHcSPRxF5lCq1Pu/XxbpLYizzMycYpajCXhexFOhUC74iJgd6fgS/FmGHc3QCF3nPbmeX8YvSOmu5wnICB4MwQwO/iSKeFeteWaymwb1Ew7AC3wZnZY8ojWqKZd1dYlcS5QrBCS4tdYDVqYsiFFH+JY6pUzNCaFYbbImBBuCdSUI/QmO6WLdClbxAqw+8HEXM8MrM1GS5AqXdQUGVVgeLPbwYmd5KkcBMrPZerXZCfDZ2DKYDKpE33ZBNkaM/DTTVaouOi73yVAw1wUpQYFcIdQr/vr9AXTBNGNIumyQXsd/ZQNBbi2asUAc8kI/Ynk6bdmHqjpcmgYVeiTVwng/YKsVhGhTeUfRcknh2OMf2yKzZqtQ6XtYklq1PZGR8flBcEqhN1zOGvnfjfY4IK600cvwhnUNi9n4ANWNYzZ1pnFY17+9973tj/tHq1asnZWOmI8c7cAQ4KwTagmWRZwfPAbEFx11YYDzXBy5NB0NectaL7RDOwTL6ivQ1ugNsFeEJccwEOp1lus2ASw+uxao0pWL+zznHb0XodHBugHcn1prYIaZ9UgbsVXPJ2YGj0ymt6SRml1ov7dwQaFS40odUTEsoYieVFg0cwGRpQzr+PEfVgj8WIOtQXnCO/U5Y4QPnA4cULks8j0aO/y9fRkvwnJVewcwKdoXiUJpDYF/qM7nL2bTpFYldKXSn29ElZhe3NCjlBIht8XhF0bM3djwRC/m0dXCote6V2NHmhDk+sGzEIVaWvo/3l+UoivlY/rtBT6szDZc+YE3RNNK7g135nHOCkkcOE77qDsqvY+vNr04XlhtPIiCWAUtGdJFcWjTlyeoT/F2rCHsjM0yuHcfLVqRXH57pPQB0qim1d+KkgveZxGsiPCuONRpYmXZmdGMH1JDo/VBLWLPCQg3ME+F55yAol6WWaZAGrlTfZJXq8Nn+KXG8mFhfsAjsUkGc4+IQmK2BF13EUrXgXJM+lwMuDMoWVZaFQIsqW0XY7kxsam0ILAyBjTh6neNpEX4TOc5SpTty1vctjvN8YJYIPWKtaDWqnO8Da1QZxDMgphoH1tnyfLqQuDAEWp1jo5PUpxFeUXgxjmgJgQ1RRLdAf+SY7z2zgy1aDrW4nROUs4Nl1QexYCLYuPiqxNoEX4kdURJoVmWGKhXBdLkLzjRKXk2z5cXhsMdlhVqHjaoZFdenv8uTLigL7I8cu8Q+s5YA8xPPr/IRr+Qi7gB6iok5y2OljGq1A2Wns1LXinSBduj3r0fWddOvcH4hedN0tMf7PC9H9r3ZHDkuOE5NPGBZd6Xa/IAy/qz+dGdm7WlkxjAav/u7v8t99903Wdsy7VDgJRexywlBhWVJwlYRdomjTgM9YsJSFwVvl+cp9aosCdbRMPIAbFJll5gxb60G9ovQi9AudmDNA9Z4z07naFbl/BDYltaYO7DFtiHOC4EGlNmRI0oXqsoxIaSq9GEbXESHOHqwNsBEHDO954IQ2CDCDLXFrRogH0zqdrcIj7uIgRBYq1Z3BjthPSmOnc6Mcl9yjoKYh+VZwU4s2xV6gOeiiKXeE2M+kivSGvC8o+qrQ8MoXs27s0A6GKTKq9jwUpfYSbFaD5ew+oCOoFSKmVGYlJaxwivzvefF2PEbZ7rrb0sDWoOaDOxudazw5oqkQF4Eh6PbmQnyjDRwb4jMiLo5KKt9YENkVwR7U/nXIeNgl65PzPVHSrSO/B7tcqZkOBk15oUhsN055pxguGW7EzamVmmXTGAh9Uyg65BjYAJmDOUTNGN48MEH+W//7b+RJAm/93u/x0c+8pEjfv/II4/wta99jRACq1ev5s///M/J5/NjPJsxoeB9pnSZDCHAxcEjWLaV53DtO8ayltGylwhYOuK9KgIHEHqwRawDiGlji7WTrQmBqhiqfEItMJgGfgeUqdKKBclC+twRFuTmofSHwAGE5yRiPoG14bBH4nwN7EGI1aYIO51Si5ILsFSsjr5cld3YyWGHc6wXM/A96OyKogzrEvmhi9gRRSzxnkpVdriIXJpJt6jyvHN0pbXnuqBUIPyHQjKcERcUnoxs4EXSzpw1wQLoprRFrwzLaF9xjghlodcjnGmG3ucqzLGnHeGVnNCljgHMJX5I8wSULZHQL441qergfFX+40CRV13EXLVSVgFbdHxLkrAqURZVwT9Hjg4n5NLPMBHL4nvShd61qeZJknaDVAHvKnh6MGW8Fj1S3/qQmEmElSmspfDNZGkwOYATMaRUeOJHnoFM4oJla2srd999N/feey/5fJ6bb76ZSy+9lGXLlgHQ19fHn//5n3Pfffcxa9Ys7rzzTu677z4++MEPHvd5T6rb5ExioSoL/eGv+zJVmtVa8opqLWWjXd4OAjsRZmA14u3iTGcEpR/lbA3sV2tRW4TSEh1eZDpaYnQHwjaxb1cdynlqC2gxsFKVlwWekIidwL9S01UexGrU56vnAYmZodAQAuegzESpRlilgVlYN8tuhG61CdBuNcnaZ8VxngY2i6MrNfQtitCNIFj9e78ITzvHDmd14wWqzNPATD2yz3gAy6I3OqEbxw5xhCTh/GDONAfS8kyPHNarrk97rXc6wau1Uzak9fynY0cQ86ycny7ojmSlVw6IvU8owye+RQEKBHZFjn0aaAnKxYnnfIT6tCzW7qyMVKHWUbM4mOVdjdrV01BgPssrDcEWJgE2p+5G+9OrhCHKFSrTz7pyCiuri4ItImd17lPLY489xtq1a5k5cyZgctsPPfQQt99+OwCVlZX88z//M7lcjv7+fjo6OqitrT3h804oeP/n//yfJ77lpxkR1sHgsUxmrLrkVoSN4igDlqXBdqkqDRooIORRq3Fjwypj8Rt1PEVEPTBfAjE2mr8dYSuO5XjaVOgGlgC9CAnK40R0IbRgVwwdOM7Ds1ID81CSEcF1J8I2HMUgnKfmsVkQoYikCYmyWj3NxcCLUcQhhIt9IC/mlDMLGFTrWFnmPfNHbP/Q0EkNcJ5Xtgq87KyF8KA4BM8af7j+6oFZPhAwAao2JzyUi3gsipijgXcWPVeketZ5zDTBFj3Naq5VTLFwmVfOT2zq9emcQ9PFuWXe9qFCTGSqhaE+agtoOcyz8758xGtlESt84N8OWpCvVGsFHTpocliJZ4gyVXakglQjKcN6x5UjD7gOscXSBemI/WQTYe2EbzaDHDblLuls8CTqSHv37sX7Iz/v2traI4JvW1sbjY2HFcqbmppYv379EX+Ty+X45S9/yV133UVTUxNXXHHFCV/7uO91a2sr3/rWt3jmmWcQES644AIaGhpoaWkZ144BfOlLX+LAgQN88YtfHPfflAIv4ziAcBaBOUdlUzsRniZiD3ZJXo4wWwOLUP6FiE6Ec/HUYPXPkRlqAF7Darlna6ANh1NhNp5VGlgvjh8Ts0ntEn47wlJRFqhyFtaPfhBhp5qiXr0I71TPLEx5rw7LLl/BUQGUo+zABmzaBRZhZZ4BVaqw3mYQZgLNKDtVaRfTqT5bA+cHq/POBbYIbHIRdamIVKsIrzirsZ6f1sUv957FKkSqnJO2nI68Yl3vhMdyEQuDck6wXvteBBXlgEJRLRhelHj6xba7NXK0KTQHz7Z08XAH0JwqOx5wjvJgvfVPxxFOFJ+2So42BdmopkWjYoNaxbRtb+YJ4l6vCPOCMihDp6HDjFbn3hw5ekR4PRJmJ6VbzHg+dsPTuueeoO4+XTnZVsGPfOQj7N69+4jf3X777XziE58Yvh9COGI2RlVHnZW56qqrePLJJ/mv//W/8qd/+qf81V/91XG3YczgvXfvXj74wQ/ynve8h//0n/4ThUKBJ598kn/1r/4VP/jBD5g7d+4Jd/Dxxx/nvvvu4+1vf/sJH1tKKNCaBse5wB4VduJYqoG9Ao8R0S9CM4F64HUcRZReDTyhQhuORlHehScotCFsKkAdwkyUNmwhtBdhFYF6rHzwGo7N6oaFsRSlBitT1EpaAwe61Lou+tLM+2xRelXZhWO3WM29A3PaCenkZaJWIuoT084+gGXUBTyqyiuYyNXqEJgnSiLCJhydosxSZVbaTjjyK9nHkE+mya8eFGFZCMxUYWvk2CaORj0sMLVfYENk5aU2hKJYwPzXhSLzQkSrEyrSxd0ZClWqbEnH4C9KbJ1gmQ9swYZlZgdwBHKJ0iumgrgnEvYj9Ihjc6zEybEmCZXAukJCkxcUQUYMAB2PuV7pjoT545yDWOCV1yPTji9lhtZ+SpmTDd733HPPqJn3SJqbm3n66aeH77e3t9PU1DR8v6uri5deemk42163bh133nnnCbdhzOD91a9+lU9+8pNHmA1fc801rFy5kq9+9av8l//yX477xF1dXdx999187GMfO+0UCoc6imLsQN+FG65xH0QoA2Zr4HLxxAi7FDZpxADCbnW04diugQEH6zViO7AgwABCM8pSrOuhXpQmVRYpPCYxitKi1pvdINAblIIXfiUxb5OEeTFsxrEbIUFYRqAmrffuIKIdoUuFRaL0KszH+swPqrBFHe0I75GEQ85RjTKfwKtE9KvVag+q8DKOd6unKMqLEvGMOJpQzsLTgumQDLVGzlMlTmvCe9OJ0kpgTggENXuwIWGtgwIvRBE7nCBpV8hQpjtL4SJvbY8jF437BQ45YdA5dkSwLJgyYjfwVD7mvGLgralhwtAgSlNitfqX0mxxLLnWBoV5Cq1OeCWKeNs4MuNm1WEDh/FwosfvE+HVyLE4hCMWbqcDCmxOjZxXJIGiWJmrZDnJBcvxVCEuv/xyvv71r9PZ2UlFRQUPP/wwn//854d/r6p86lOf4v/+3//LnDlzeOihh7jwwgtP+LxjBu9XXnmFL33pS8f8/P3vfz/f+ta3TvjEn/vc57jzzjvZu3fvCR87Gg0NJxpNOJLGxpoTP+hNwissL9rC3uIczFXY7WFxDF0BViosiaA8TSmbA/gB6PQwuwAzBRaW56guh/yglRyaHKxoqKJGzEy3Ks0wXynA7sQWvdqKgINaB5eXw68H4FcD9ny7y+DKapifwJZBiD0cwJToNgRoVQuS5+egJoYqb881N4LlDl7pNQ/HuRXwrpx9N3sUnkps3PxSB48M2hDO+vRv8gr1QKOD5zy0JXBhfQ2NI2oEc9J/dwXYH8wF/gKxtshqgdr0IChTy7JbgAXASmCWwNDVZU7tuRoxk2MA1Mb0W7F+60Pp3xaxosVBoBarTW/C3s/lWAljLnZSG80JprGxBo9ZcSXpYzsxe7GmUR4/iBkEN8ARLaNvlC1Y50wPTNjTcbKPh27sPVGsjLV0El7jVB7Tk8ns2bO58847ufXWWykWi3zgAx9gzZo13Hbbbdxxxx2sXr2az3/+8/z+7/8+IsKyZcv4sz/7sxM+75jB+3htgSfqP/zRj35ES0sLl112Gffee+8JN2I0Ojp6COPMNhoba2hv7z6p1zlZ5qe9wINpIJmDHcQV6a07vYFl6k4dbcFxqSrlolyWBIo9MFutk6KpoZrO/d28FoRd6pglSr0or3tHl5qvY68K20VoJPDKocBOdeQkIh88OqD8rAdmEVAcXWoWabs1sEcd3SosdJ5+B+dFnn51HAIOonQqFH1MryqPdCtbnHJRbAuSixlSBYTV6vgtjjKU5zBhqLfjGQRel5jHy8uZ191LO8eWAcoww4ky7KQyVFIZHPGYs7HXU7H2xGdTfZUAPBtFxGJTh4nA+sh6zmeqdZ8MivByUFoSz0VAWc76ng8F5YDA07GdUXq9XdXMS8fxe47azsbGGv6lo4c9kWNlErhAlc1O2Bo7IoUriv6YzpZXnbAjdpSnLupvFg0CPZEw20P7BLLaU3E8eCCOHX0IxcS/6Z6Z490H52TCid5UsG7dOtatW3fEz/77f//vw/9/17vexbve9a4JPeeYwTuKIlpbW5k9e/YRP29tbT1h8P7Hf/xH2tvbueGGGzh48CB9fX38xV/8xWnlwONk/NNpOYHzJFCDsk8dZ4lSJTCosMsLPQHaC1AMEfUa8Aq9QKc6DgLniqfOKa8HRxyEtsSUAEXhwshTI8pWdawvwLJIqXLQTOBi8dQ4+G2A/UE4FIQDKOLgXAL71bL29UQsdoHXvOMVHG1AfSiyIlJGVu9WE1hMoBfhpXRAaS6mbfKrdJHvNcwObTSGOnPaRHhBhP3Ocb73rEg1QKrSW1FNrlUx9cChoZmhuuSudDhnv1h5Y4VXHstbH/2QaNbbi4dPIFVq2ikBG1QZFKFHTfHvaDqA5+KIGarsdzDb23O+7qyDZbQDZqbCboUGPdZI+PhHyvGZobBmmpoTRFiv/emCit0m8vipZszgffPNN/OZz3yGv/7rv6a62s5sHR0d3HXXXXz4wx8+7pN+5zvfGf7/vffey1NPPXVaBe6TZYlTFqonSj/4HYnj2SRCg3JxugC3J3HsCcJb8p59RDSJZb0Hgo2u16mjVYT2IMx1JkalCj1B2aURfSpcGCdUIxxwwsJYeZfzbC4Kv9CYTi90Rx6PsNWbbOoiF9iPUOsSngvWllh31JezR2GrOhpRmpyyClsgHJoovJTA687KFMqJy4c9IrRj/e9z9MgJ1Rxwtg8cEDO+KAfe4v3wGsMcVQ6ivKdoQz3dYs5EvZhLff2IeDfUnndpGmi2OWslbBrlqs4DzwFlokhQ5nplixNaI2GpV8p09BN2syoNRX/EwTQ0fbnUBxZPs3r10ewX4aXIMS+YVnlGaTBm8P7Qhz7Ejh07eNvb3sayZctIkoRt27Zx66238v73v/9UbmPJ4JXhwDwWI39fiZJTpdrBVRXQ2hN4yufwQE/iWF0WcEH558GYA8EyeAecLZ6qCOolcCA4CiosRoHAgMKhIHQFgcjRE3mqHdRH0BiUgQCPDMQISn2sxAgNTmkWO2gvDAl9Cp1B2BWs02IHjmLaatctwmz1w48fYg2BNWUw2Gv9zK9g7u3ncuzIeGPaMvi6c8NlpoDJqvaqslKtg6VVHK874dwQhl2AwDLStSOyvkHVVK7WxKzqUp0UxTL41yJHSwi8Je0smR+ONQ4Ge2/rgY4Aq1Lbti2xo19tOGfRcdrgckfd70idezqcTPvg3SZQFBMIWzaOSc3TkdMq8wb4wz/8Q37v935vuKH8vPPOO6aMciJuuukmbrrpppPfwhJhvxc2J47mKLAwHt/BWuVgoVNyaoGmOoLzY09bEJbkAjMEvBsaxRdqUWbHSkgfH6ldvtaKcn4+8DY8m7yjkI7T14xIE2dFyu+4hGcGHb8uxuQUqsSTi6E9CHMiG9x5yTv2B4eiVAs4p3QBe4OjQuCyyA8vIo4kBzSmU6K9QDvWSdKNHDNVKMBsYPaIFrldIvw0ihAgThK8WOBtUWW+HplNH/M+AiuDZckvRo6AZZAJ1i2yMRJ2OyuFnOfH1hYR4EKgOVVubE+lBZaGwKoJ9i+fmxpZNJ8gcCs2eVqmjKqLcipYGBQVa63MKB3GDN5dXV0AlJeXc8kllxzz86FRzwzjULBa7YEgLBxnx2iZU+qc6W3nxboxzooDF4yILpHAW8s8hxRmOaVPYWPBkajwzECMCKyu8DRHigjMjAKDCpqDQrCuFVU7uQCcFQU2DEA+CtQ7JUnbB+dgNeECJtkao9QIzHeBrcHKK9UOWtzhfUsU9gWhXGzbhqgEFhFMW3uc70UFUK+BTqwm3elMkKta9QiZ0yIWZEd+cXOkju+x2a9tQ1gWTAvmnMR67w9Ewh5xrGF078chHIflCRpVuarox1zbKHJsxj1EjTI8Nn88djszFS5XuDzxUzKhWIXJCWSUFmN+V9auXXvMVNAQIsKGDRsmd8tKjHmxUi6Bme7Ig6DXQ48X6mMld1QUqBBoIdAX7HEbBiICcE6Zp3pEAK9xSn9BGAjCTm9eZU25QGcsdAehdkRL3Z6C0Fp0HEyUcicsLQvMyClbitbI2uAC5+UtSKzMBw6qUJ9uc17g3MiTRMIMFJdu7zyvxALzXGCkmNr+IGwJjligWuxyu0etdrxIJhYMGlR5X+J5JoroSAdqVmng/NQAAmBX2gs+EzNXGKkBE2FWapsiGzJqFXg57TC5rBjYoY4WHZ+S3khT5+ion/eJaZ5scsKuyLHCh2Et8ZNhaBE2Y2qZ6OcwHT6zMYP3jTfeyHPPPcc73/lO3v/+9w8rYGWMTl5gzlHlElXYNBBRCFDUwLyjvKmKCrsSh1doSdKAodbJMpKuorC74IiAmlxAnaNe4F1VCX0BvIfneyJa8oED3vHagGNrv1Amgq9OqCsqrYljbj7QECs9CrUuUCVQfdTJpmZoIzicsb9UdJQ7GBCBEY+vcmaEUCHWhdEf4AW1E9AaPDPS/TgAbCCihZDW5kenOr0VgQu8p5bDC5+HBJ6KIzZHjuWpJdnRAl51qswNSlla8/aYf+XG2FGnyooTZJe7nfAI0JmPOS/xnH1UUN7ohO2xo8UHesQmQA+kPeujYcbK1u0yVvY+LyhVR2mmZEwBJzmkM5WM+X354he/SH9/Pw8//DBf+MIX6Ovr4/rrr2fdunXjUrzKsGy4JlK6VKgY5eiNgeY40OOFpjxE5bbYV350hh5ZWaXCKUvKlK5CYOeAoypS6mLl6R5HtxcUx9Jyz54BoTtKx5YVdg46eryQi6EugrpofItS3QE2FRydXpgtekSg1zRVWeM85WInHJHDmerIXejEfDl3q6MRTwWjL+yWYz6am8Sc7UdO7EXpEM/ixMwiRnb2Bmzarwi8pehN1xy4MFE6RNkcOfrF9LTHKnOABe9OYL+DPZFjRTiyxDIotgg5KMJqH9gfhNnHybpficxfdEESjjgRFNN/c1gMOF49vxToFDOnnneSDkLTgYaqQOF4xp9HkY+nPnof92RfUVHBDTfcwA033MC+fft44IEHuPXWW1m0aBFf/epXT9Emlh79Hrb2RVRHgUXlAV9mnSIjCWrdKfPzFgUrIihLI17roNCXCHMrAnkHVRGsqvLDGhLd3urZLg1wfV7oTYRZkac2hnfPSNhXKewfEGoi6FQlL47yCX7fYrHtXhQr5+Q9/UF4tSDMiQN9CFu8o1qU1Tlb6SoXuEBsqKZixGvNRVECBxWeIaIJ5ZzUyaYAdKWLseXAAREOOschhSb1w6JdVTCso330wl63wNbUk7FRA9VpAGlQpU6hGjMFHm2aciQrvPlpdhQ9y8KxydUKH2hUoQ/oQY7RRDmaRISgqTlySh9mxixY6WeqFinfTDZFjl4RuiOhsUQFtjr6HAOF8Qfv8vw0D94j6ezspLOzkwMHDtDQ0DCZ21Ty9CbCgIdCcMwp98cEboCdvY6DBWFeVaB+xBm/GGBHn8MHqI2FhvR3Q5lqa79wYMBR5pQFZYHyCOaXKaFMqU4/zXxkWtidOHoSOLfao6JURGN/OQvBXvtQurA5O69UOlhdZt0leYHX+63Es7vomJFLSytHPc9oBiPlwDKUlzHRqYERv9sswm4cdSgXaTBtcYWZo2h0jxXoKtUCdRGGA/cQDusVH8QC5/GC5QyFZUC7V7rEMsqhrDjBdMVfihzdqeFCVdFTc5zj/dwkMHeEjRxYIC+IomnZZVoUT98gc4PyWiQsKGGBrdOq5g2mLPiTn/yEBx54gCiKuP766/nhD3844XbBM42ZOWUwBCoiiMcodvZ5a6UbOCpRUYWBgjAQIDfKot/QwJ1TYWdPRGWsrKq2oZuaEcE576DcKU5It2Psr1uisLEn4pC3IFUZQU3kqY4PXw2AlXj2JY6mnFIXKVVpyWS01sHRWCaBxjTLHqJcwTn7F2zI560T7DXOYaqCYzEIPBlHJGLZ7olMenvScXoVK8PMTBcof5mP6FMA693OneB5yuAY15yhqUnhSLedUmZuUOaE43fxZLz5jBm8b7nlFrZu3cq1117LV77yFc4999xTuV0lTexg7lhydSmLqz29RaHCKa2HhIpUgycA9Tnr5T66OwWguVypzQUGirC331HwQkUE7qhAn3ewoibgQ1qfPgGKlUjyKOqF0ZKo5pzSnDscWGdM8GgtE2g6KmdZhNIU/BGa5ifL0DMfvVkesyxLsNuJcGonhDBiEVGwIac+4K2JZ17Q49bPx0LglBgvnGpKPXCfVpn3b3/7W8rKyvjRj37Ej3/84+GfDwmJP/vss6dkA09XyiMoj5Q9XUJXv2NgN8yrtp8vqbUAWTHKpxM7qHVWIimPA5FYG2FZTo/I8gsJ7D3kaOsVDhWFs+o8C+pG/8rFAmdVe5IA/Ymwq0/Y0RexWDzlEaTlZILC3lSJq6VMj+mKORmE8bukH48B4NnYnInOSwK7nZBTs2WrxDLuBBjtLQiYR2WE6aJUYgJYymHVwWVBaSp6qnTieiXdAn0iNIQSd5rJmFaM+V169NFHT+V2nLFUlcGWdsEL7Fdh9gwdNWgPkXjY3elwDubUBdoOCQf7HDUVyty6w+lyV7/QPSDsPBgRidKai5hTm1AMsO+QQ4P5VDbVBGZUWFDpHhQKmhoje9h8MKIiVpbOCDiBPg/7ChbJZ8R+uMbuFfYWheKAudePt4wyvE+YrVsMzEfHLfg1kj4xvRSAlyLhF7kYD3x4MGHhUYM+I/u4wRZJX44cDmVB+rOjrwQiRg/8JyIBno0j+oHlBJZM81H5M5bTqVVwyCnnpZdeGrZBu/DCC1m1atUp27gzgRkVysKGQFwObhyl3kIC/UXzliwkFihH+97Vliu9BWXZjISOXkcYVDa3RiCmUdLWLbTUKF39wowK5dCgsK/XesmX1nn6EmFXr6O1zxED82oD5Y7huvpQO6NX2Nzv2FUU+vpMKrdiHF9sVesycZip8Q4sa67DzBwmeizNVDjL28lLgV5RDohjUywsLB5eXH0xcnSIcIH3w2YPZaklWoRQzuFWvjcDAXKqFOWNKQxmTDKnU/AOIfCpT32KJ554gosuuohCocDf/u3fcskll/CVr3yFKBpLISJjosytC9TOhENdJ87KyvPQUGPWYWU5aMopMyo8+aM+yfIczKkJbO6OmBFDcELilbI8VJUpM8sDXoWGyrTNL1ZyAmU5pTy2+0EDu7yjpyj0FYUZZcryqiOL4QeKwv6i0FV0LI8gP56iMmac8KJawD4XT6VYd4kHHieiCmU1YUwdkiEGgUNpy+SQAJQC7x307I2UCj2scjjkDO/FZAyGukCqsdF0wTLuN1MJOwIuTgIDwnE7U04l+0ToEtM0OVH75JnENPl4xs2Ywfs73/kO3nt+/vOfD+t39/b28kd/9Ef8z//5P7nttttO2Uae7jiBirx1OYznsY1HRYGKMVK67l4h50AimN2QsKctJhZlTmNIR98PP09FDubVeDq7Hb0DQk2FMqtCKfpAIQiVY4htVURKZQTnRJ41tdC5f3z7HI24VQGXpAYOuzG/y2L674mCy6uRY68T5vrA6jR4C3BRUA6kPd9Db2sOWJUEDoq1Dw7RD+x3Qv0klTTymOvQdKAAvBy7tHQUWJ6VcYDSXLAcs7z4//7f/+Pzn//8EcYLVVVVfP7zn+fBBx88JRuX8caorVaqKpQ5jZ6cEypySpIIPT2CH6VEc7BP6CsI7QcdfQNCT5+JUS2sCeTGSIHLBMpV0QAT0eavFrhIPBdI2m6I3ZpS78zlqb/mEDtFeMo5ujjywClTJdJjR+VzWJve0X3ds1VZHvSIx78aOzbEjhfH6us8jYiB+qAnXcPPmD4ct2xSU3Osh9yMGTOOa5GWMX3I52BOo0XUEGBWCHR1Cp3tjsJAYFbTkZ/jzEolSZTIwY42x/5uR0NNoLk+UFc9+md+qAi7eoSaPPSfoGRSUOhWoVrUgv4oVxp5bKDnaLY4c+553jlUzHF9URqI5wf/hi7/K4OtsladAd9rB5zvA95nWirHMA3q2BNhzFSjr6+PMEqzbwiBYvHNXNLJOBU4BzNqlepqs0EbbcmishwWNAVmVNpj8rHiIsbMugE6BxzlTkChJr1I2zcobO5zDB719dmSODYUHVuSiWe4y0NghlrG6DGdbmDYPu2N5MzLg3J50Z8xsqhHS+pmlCZjfucvvfRSvvvd7x7z829/+9tcfvnlk7pRGZNHfYMyZ65n5nHUkKorlYVNnvOXJCyZ7ak+zsBRVaz4BGbllEhszH7foONgUThQPDKVyYv1hpdNUC4WoEWVi0LgghBo1MBS/+aNYgu2aHn6F00yxkRO4jbFjHkCvvPOO/nQhz7Eiy++yMUXX0ySJDz55JNs2bKFH/zgB6dyGzPeREQgN46etfJRHhMC9A0K+VjJp+OFDpsIHSgKPrVqq8+ZUuKMoxY5F0VKczpSPxZerQ97ND0YsI6RTnH0RlDrzcm9gOmO1Colq2p3PIa6ZTImj9NqwbK+vp4f//jHnH322fzqV7/iscce47zzzuNHP/pRJgl7hnKgW9i737F3fzQ8cl+dU3oLwmBB8cFODgsqlHOrTdtlJE6g0h2rVz6EV3gGx/0a83oY/UGDqbTrAFY+AdgrwmbneDFyFI6z/YqZ7XaWUCR8zQk/z0W0TnTyKWNC6Encpprjlr5qamr4D//hP5yqbcmYpnTuF/p7HbmqgAjEIwWwIqjNKYrQMzi+5+vwwm4vzI9M4GqIBNP83oeQI2KBJsdk6Y2qrA5HSrzWYj3iM08wft4pwrOxwwGXJsdXBJwu7HXW1rffwezSVFstDU6nIZ2Pfexjx/3Dv/mbv3nTNyZj+hEC9HbbOH2Vg/lNnjg+PAIfO6ivCAx4oaoMDvWd+Dl3eaE/CHvhiOBdJnAhnpxGzCeMOpHogOajSiN1Clck5gh/vGMqhwX3CDN3KAVW+UC7wIKsHzvjKMYM3tdcc83w/7/2ta9xxx13nJINOhlCSEBLuwPGJwMnvQ++F4p7hahOyb2JUuuqoAk0NBYpDkJVDcTpN6aQZtn5PDSnHaU5d3S39ejMi5S9wJxRIuhCUeaTWCI0gexmPN0TtQprizZJ+WZMFgZswnMypxRnqTIri9uTTmNloJCM/42e1k46v/u7vzv8/+9+97tH3J9uaEhIkoETP3Aa45PopPehsE/wB4SkG2TGm9eF0dsu9B8QKuuVqjSCJEUoFqGtLXWuaQzk05itYXy+MA2R0nCc1PfNUCsci7G20AP7nEyohe7FyNHmhOU+sDDLjEua9j5Hf3H8n2HFWCvqp5BxfVclWyyZ1sSzFC1AVG/3w0EI2x2uSXHN4/tCahH6dwsSQcUchQiSAqY+mK4C+gJ07nMoijrGnR0PxbXJDMpvlL2pS04rsJrje12CLVgdTFXBxiNrkDG9UbHbRB4/1WS9+qcBrgrKzjocpLVT0AEIbTLu4O37haRbUIF8gxJVQk2TUqyBXNrnnSRCUgBxwqzmQJyD+ARRzits6XYUgrCk2h9X7nYqqUht12rghGJYYCeuC7znQBCasqw7YwoY81Dq6uoa/r/3noMHDx4xFj9z5szJ3K6MN0CUBmypG+WXCVaoreSI1b2oUsnNBBxE5ZB0w2CrkK8HlwbofLlSOyu1LatgXCvuxQD9XvBq/1aMIXA11TQoXFH0NAOd4/ybGoWa07Cv/EzktMq8165di4gMB+xLL710+HciwoYNGyZ/685UJjKV0QeyW9AGDrvlVkC0ePSgEl4XtAdkLri5h/VSJYaK+Yf/ptgphAFhsB1y6fOKg6qZEwtW5RHMqwwUAsyYLtJ6Y5BnfFl3RsZ0YMzg/eqrr57K7cjYCfE2IThwnYI/W9GGEwc72SVIm0An6KXHefwgyEZBtgtaB5oo4RWBIrgVeox1TL5RUQ+5+je4X0B92fQO2hkZpUgm5zAdKAIbwbUL8esOPEjH+P5UZ4HmgBPVtnsFDgiuCqKFiqtTtEfQfoH+Y9P8qBIqlyi5CWbaGRmlyGRPWD744INce+21XH311dxzzz3H/P6f/umfuOGGG7j++uv5j//xP3Lw4METPmcWvKcDOWAhhFqleLEnzFHC/HF+PeoVvTSgC0/w+BpFWxRdrNCiSA3IPEXm6fSxeMnImComUZiqtbWVu+++m+9///vcf//9/OAHP2DTpk3Dv+/p6eFP//RP+da3vsVPfvITVqxYwde//vUTPu80Xfs/A1kKSd2QjdckBNMcsOzI53Vz3tjrFHqh2C9UzNDhRc2MjJLkJMfj9+7diz/K2aS2tvYI/afHHnuMtWvXDjd5XHPNNTz00EPcfvvtABSLRf7kT/6E2bNnA7BixYpxGd5kwTvj5AjQvdeZQFWAqqYsey9VArAnbcKfG3Q6yHacck5WVfAjH/kIu3fvPuJ3t99+O5/4xCeG77e1tdHY2Dh8v6mpifXr1w/fr6ur493vfjcAAwMDfOtb3+KWW2454TZkwTvj5HBQVqMMdgvx+AYrM6YpXQKvRGYGXa2ebJlj/Nxzzz2jZt4jCSEcMeioqqMOPnZ3d/Pxj3+cs88+e1wT7Vnwzjhpqmcr1Y1a8isn252wxwkrfKDxxA8/7ShXu0Xp/89UTmbXW1paTviY5uZmnn766eH77e3tNDU1HfGYtrY2/t2/+3esXbuWz3zmM+N67RI/7DKmnNPgG7TFOXpE2Dud5/cnkUrgrYlnbeKP7hjNeBO4/PLLefzxx+ns7KS/v5+HH36YK6+8cvj33ns+9rGP8d73vpc//uM/HrccSZZ5Z5zxnOsDeyI5o2VXz/jhpEnU8549ezZ33nknt956K8VikQ984AOsWbOG2267jTvuuIN9+/bxyiuv4L3nZz/7GQCrVq3iC1/4wvE3QaepFXxHRw9hnAdTfV2OtrbxDjVPTxrqq+jo7J3qzXhDNDXV03mgtKV5GxtraG/vnurNeEOcSfvgnNDQUP2GX+/hzQP0TUAStjIWrl46tdcpWeadkZFxxlOKHpZZ8M7IyDjjmV0WKExANC0fTf36SBa8MzIyznj2DboJl02mmtOgVyAjIyPjzCPLvDMyMjJK0D0+y7wzMjIySpAs887IyMgowcx7UoP3N77xDX76058CcNVVV3HXXXdN5stlZGRknBSl2Co4aWWTxx57jF//+tfcd9993H///bz88ss88sgjk/VyGRkZGSfNZJsxTAaTlnk3Njby6U9/mnw+D8DSpUvZs2fPZL1cRkZGxslTgmWTUzIev23bNj70oQ/xd3/3dyxatOhNf36fDOCTwTf9eTMmRhSXEcWZtFFG6fGP2yY+Hn/totN8PH7jxo38/u//PnfdddeEAvdEtU1KXRfk9NA2KTtjNDWmM2fSPrxZ2ialyKS2Cj7zzDP8m3/zb/iDP/iDcYmLZ2RkZEwFKhO/TTWTlnnv3buXj3/849x9991cdtllk/UyGRkZGWckkxa8v/3tbzM4OMgXv/jF4Z/dfPPNfOhDH5qsl8zIyMg4KSaaTZ/WmfdnP/tZPvvZz07W02dkZGSc0WTj8RkZGRklSDYen5GRccZTihOWWfDOyMg445mTCwy68YfkssyMISMjI2Pq2ZNM0IxBhYsmcXvGQxa8MzIyMkpwPD4L3hkZGRlMjzr2RMi6TTIyMjJKkCzzzsjIOOMpxW6TLPPOyMjIKEGyzDsjIyMDpsUi5ETIgndGRkZG1m2SkZGRUXqUYs07C94ZGRlnPKUYvLMFy4yMjIwSJMu8MzIyMkqw5p1l3hkZGRmTzIMPPsi1117L1VdfzT333DPm4+666y7uvffecT1nFrwzMjIy5CRu46S1tZW7776b73//+9x///384Ac/YNOmTcc85mMf+xg/+9nPxv28WfDOyMg449GTuI2Xxx57jLVr1zJz5kwqKyu55ppreOihh454zIMPPsjv/M7v8N73vnfcz5vVvDMyMs54TrbbZO/evXjvj/hdbW0ttbW1w/fb2tpobGwcvt/U1MT69euP+Jt//+//PQDPPPPMuLchC94ZGRlnPPOiwOAEwveQGcNHPvIRdu/efcTvbr/9dj7xiU8M3w8hIHK4zqKqR9w/WbLgnZGRccazKzh6w/iDd5UIlwD33HPPqJn3SJqbm3n66aeH77e3t9PU1PSGthey4J2RkZFx0rS0tJzwMZdffjlf//rX6ezspKKigocffpjPf/7zb/i1swXLjIyMjElk9uzZ3Hnnndx6663ceOONvO9972PNmjXcdtttvPjiiyf9vKKq02HS8xg6OnoI47yMqa/L0dbWOclbNLk01FfR0dk71ZvxhmhqqqfzQHGqN+MN0dhYQ3t791RvxhviTNoH54SGhuo3/Hr/t3WAXj+BskkkvH92+Rt+3TdClnlnZGRklCBZzTsjI+OMR8VuE3n8VJNl3hkZGRklSBa8MzIyMkqQrGySkZGRwfTQ6J4IWfDOyMjIKEFJ2Cx4Z2RkZMC0CMgTIQveGRkZZzyZDVpGRkZGxikhy7wzMjLOeLLMOyMjIyPjlJBl3hkZGRlZt0lGRkZG6bFAAgMy/mJI+ZtgpvBGyYJ3RkbGGc8OHD0TqGRXI6ydxO0ZD1nwzsjIOOMpxQXLLHhnZGSc8ZRi8M66TTIyMjJKkCx4Z2RkZJQgWdkkIyMjowRbBbPMOyMjI6MEmdTg/eCDD3Lttddy9dVXc88990zmS2VkZGScNEM2aBO5TTWTVjZpbW3l7rvv5t577yWfz3PzzTdz6aWXsmzZssl6yYyMjIyTIus2GcFjjz3G2rVrmTlzJpWVlVxzzTU89NBDk/VyGRkZGWcUk5Z5t7W10djYOHy/qamJ9evXj/vvGxqqx/3YEBKamuontH3TkaamsqnehDeEuJjGxvKp3ow3TGNjzVRvwhsm24cJUoILlpMWvEMIyIj5f1U94v6J6OjoIYTxXZw0NtbQ3tE/4W2cTjQ21tDe3j3Vm/GGaGwsPw324XT4HM6cfXBOJpTonU5MWtmkubmZ9vb24fvt7e00NTVN1stlZGRknDR6ErepZtKC9+WXX87jjz9OZ2cn/f39PPzww1x55ZWT9XIZGRkZJ4+cxG2KmbSyyezZs7nzzju59dZbKRaLfOADH2DNmjWT9XIZGRkZb4jpkE1PhEmdsFy3bh3r1q2bzJfIyMjIeOOU4IJlNmGZkZGRUYJk2iYZGRlnPItCYGCc3W0A5dMg9c6Cd0ZGxhnPVufonkDVu8YJb53E7RkPWdkkIyMjY5I5kc7Thg0buOmmm7jmmmv44z/+Y5IkOeFzZsE7IyMjAyatTXBI5+n73/8+999/Pz/4wQ/YtGnTEY/51Kc+xec+9zl+9rOfoar88Ic/POHzTtuyiXMTe4cm+vjpSLYP04NsH6YH49mHN2s/KyNBwwQen77u3r178d4f8bva2lpqa2uH74/UeQKGdZ5uv/12AHbv3s3AwADnn38+ADfddBNf+9rX+PCHP3zcbZi2wbuurmpCjz8dRmSzfZgeZPswPTiV+3BT1cR1hQYGBrjhhhs4ePDgET+//fbb+cQnPjF8/0Q6T0f/vrGxkdbW1hO+/rQN3hkZGRnTmUKhwL333nvMz0dm3XBinaeT1YHKgndGRkbGSXB0eWQsmpubefrpp4fvH63zdLQO1P79+8elA5UtWGZkZGRMIifSeZo7dy5lZWU888wzADzwwAPj0oESVS21kf6MjIyMkuLBBx/kb//2b4d1nm677TZuu+027rjjDlavXs2rr77KZz/7WXp6eli5ciV/+Zd/ST6fP+5zZsE7IyMjowTJyiYZGRkZJUgWvDMyMjJKkCx4Z2RkZJQgWfDOyMjIKEFKOnifSOxlutHT08P73vc+du3aBdjY7Lp167j66qu5++67hx93MiI1p4JvfOMbXHfddVx33XV8+ctfBkpvHwD++q//mmuvvZbrrruO73znO0Bp7seXvvQlPv3pTwOluf233HIL1113HTfccAM33HADL7zwQknux5ShJcq+ffv0He94hx44cEB7e3t13bp1unHjxqnerDF5/vnn9X3ve5+uXLlSd+7cqf39/XrVVVfpjh07tFgs6kc/+lH9xS9+oaqq1113nT733HOqqvpHf/RHes8990zhlhu/+c1v9IMf/KAODg5qoVDQW2+9VR988MGS2gdV1SeffFJvvvlmLRaL2t/fr+94xzt0w4YNJbcfjz32mF566aX6h3/4hyX3XVJVDSHoFVdcocVicfhnpbgfU0nJZt4jxV4qKyuHxV6mKz/84Q/5kz/5k+HJqfXr17Nw4ULmz59PHMesW7eOhx56aFSRmumwX42NjXz6058mn8+Ty+VYunQp27ZtK6l9ALjkkkv43//7fxPHMR0dHXjvOXToUEntR1dXF3fffTcf+9jHgNL7LgFs2bIFgI9+9KNcf/31/J//839Kcj+mkpIN3qOJvYxHzGWq+MIXvsDFF188fH+s7T9ZkZrJ5qyzzho+eLZt28ZPf/pTRKSk9mGIXC7H1772Na677jouu+yykvssPve5z3HnnXcOj2aX2vYDHDp0iMsuu4xvfvOb/K//9b/4+7//e/bs2VNy+zGVlGzwPlkxl+nCWNs/3fdr48aNfPSjH+Wuu+5i/vz5JbkPAHfccQePP/44e/fuZdu2bSWzHz/60Y9oaWnhsssuG/5ZKX6XLrjgAr785S9TU1NDfX09H/jAB/ja175WcvsxlZSsMNWJxF6mO0eL0Qxt/8mK1JwKnnnmGe644w4+85nPcN111/HUU0+V3D5s3ryZQqHAOeecQ0VFBVdffTUPPfQQURQNP2Y678c//uM/0t7ePixF2tfXx+7du0tm+4d4+umnKRaLwychVWXu3Lkl932aSko28z6R2Mt057zzzmPr1q1s374d7z3/8A//wJVXXnnSIjWTzd69e/n4xz/OV77yFa677jqg9PYBYNeuXXz2s5+lUChQKBR49NFHufnmm0tmP77zne/wD//wDzzwwAPccccdvPOd7+R//I//UTLbP0R3dzdf/vKXGRwcpKenh/vuu49PfvKTJbcfU0nJZt6zZ8/mzjvv5NZbbx0We1mzZs1Ub9a4KSsr44tf/CKf+MQnGBwc5KqrruI973kPAF/5yleOEKm59dZbp3hr4dvf/jaDg4N88YtfHP7ZzTffXFL7AHDVVVexfv16brzxRqIo4uqrr+a6666jvr6+pPZjJKX2XQJ4xzvewQsvvMCNN95ICIEPf/jDXHDBBSW3H1NJJkyVkZGRUYKUbNkkIyMj40wmC94ZGRkZJUgWvDMyMjJKkCx4Z2RkZJQgWfDOyMjIKEFKtlUw48xgxYoVLF++HOeOzDO++c1vMm/evCnaqoyMqScL3hnTnu9+97vU19dP9WZkZEwrsrJJRkZGRgmSDelkTGtGK5vMmzePb37zm1O4VRkZU09WNsmY9mRlk4yMY8nKJhkZGRklSBa8MzIyMkqQrOadMa0Zq1Xwk5/8JFddddUUbVVGxtSTBe+MjIyMEiQrm2RkZGSUIFnwzsjIyChBsuCdkZGRUYJkwTsjIyOjBMmCd0ZGRkYJkgXvjIyMjBIkC94ZGRkZJUgWvDMyMjJKkP8/2/wrnCUjA7cAAAAASUVORK5CYII=\\n\",\n      \"text/plain\": [\n       \"<Figure size 432x360 with 2 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# check the predicted likelihood\\n\",\n    \"dot_scale = 0.1\\n\",\n    \"l_std = np.sqrt(pred['E: std']**2+pred['HOMO-LUMO gap: std']**2)\\n\",\n    \"\\n\",\n    \"_ = plt.figure(figsize=(6,5))\\n\",\n    \"rectangle = plt.Rectangle((0,0),200,3,fc='y',alpha=0.1)\\n\",\n    \"_ = plt.gca().add_patch(rectangle)\\n\",\n    \"im = plt.scatter(pred['E: mean'], pred['HOMO-LUMO gap: mean'], s=l_std*dot_scale, c=np.exp(tmp),alpha = 0.2,cmap=plt.get_cmap('cool'))\\n\",\n    \"_ = plt.title('Pubchem data')\\n\",\n    \"_ = plt.xlabel('E')\\n\",\n    \"_ = plt.ylabel('HOMO-LUMO gap')\\n\",\n    \"_ = plt.colorbar(im)\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 5-10min to complete!</span>**\\n\",\n    \"\\n\",\n    \"The second option is to prepare your own forward model. In fact, this may often be the case because you may want to first validate your model before using it. When the training takes a long time, you want to avoid repeating the calculation that is simply wasting computing resources. In this tutorial, we will use gradient boosting. Let us first verify the performance of the model on our data set using a 10-fold cross-validation.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 21,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 2min 36s, sys: 1.42 s, total: 2min 37s\\n\",\n      \"Wall time: 2min 46s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# forward model library from scikit-learn\\n\",\n    \"#from sklearn.ensemble import RandomForestRegressor\\n\",\n    \"#from sklearn.linear_model import ElasticNetCV\\n\",\n    \"from sklearn.ensemble import GradientBoostingRegressor\\n\",\n    \"#from sklearn.linear_model import ElasticNet\\n\",\n    \"# xenonpy library for data splitting (cross-validation)\\n\",\n    \"from xenonpy.datatools import Splitter\\n\",\n    \"\\n\",\n    \"np.random.seed(201906)\\n\",\n    \"\\n\",\n    \"# property name will be used as a reference for calling models\\n\",\n    \"prop = ['E','HOMO-LUMO gap']\\n\",\n    \"\\n\",\n    \"# prepare indices for cross-validation data sets\\n\",\n    \"sp = Splitter(data_ss.shape[0], test_size=0, k_fold=10)\\n\",\n    \"\\n\",\n    \"# initialize output variables\\n\",\n    \"y_trues, y_preds = [[] for i in range(len(prop))], [[] for i in range(len(prop))]\\n\",\n    \"y_trues_fit, y_preds_fit = [[] for i in range(len(prop))], [[] for i in range(len(prop))]\\n\",\n    \"mdls = {key: [] for key in prop}\\n\",\n    \"\\n\",\n    \"# cross-validation test\\n\",\n    \"for iTr, iTe in sp.cv():\\n\",\n    \"    x_train = data_ss['SMILES'].iloc[iTr]\\n\",\n    \"    x_test = data_ss['SMILES'].iloc[iTe]\\n\",\n    \"    \\n\",\n    \"    fps_train = RDKit_FPs.transform(x_train)\\n\",\n    \"    fps_test = RDKit_FPs.transform(x_test)\\n\",\n    \"    \\n\",\n    \"    y_train = data_ss[prop].iloc[iTr]\\n\",\n    \"    y_test = data_ss[prop].iloc[iTe]\\n\",\n    \"    for i in range(len(prop)):\\n\",\n    \"        #mdl = RandomForestRegressor(500, n_jobs=-1, max_features='sqrt')\\n\",\n    \"        #mdl = ElasticNetCV(cv=5)\\n\",\n    \"        mdl = GradientBoostingRegressor(loss='ls')\\n\",\n    \"        #mdl = ElasticNet(alpha=0.5)\\n\",\n    \"        \\n\",\n    \"        mdl.fit(fps_train, y_train.iloc[:,i])\\n\",\n    \"        prd_train = mdl.predict(fps_train)\\n\",\n    \"        prd_test = mdl.predict(fps_test)\\n\",\n    \"\\n\",\n    \"        y_trues[i].append(y_test.iloc[:,i].values)\\n\",\n    \"        y_trues_fit[i].append(y_train.iloc[:,i].values)\\n\",\n    \"        y_preds[i].append(prd_test)\\n\",\n    \"        y_preds_fit[i].append(prd_train)\\n\",\n    \"\\n\",\n    \"        mdls[prop[i]].append(mdl)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"You will see that the performance is not so bad, especially inside the target region that we are aiming at.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 22,\n   \"metadata\": {\n    \"scrolled\": true\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 360x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 360x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# plot results\\n\",\n    \"for i, x in enumerate(prop):\\n\",\n    \"    y_true = np.concatenate(y_trues[i])\\n\",\n    \"    y_pred = np.concatenate(y_preds[i])\\n\",\n    \"    y_true_fit = np.concatenate(y_trues_fit[i])\\n\",\n    \"    y_pred_fit = np.concatenate(y_preds_fit[i])\\n\",\n    \"    xy_min = min(np.concatenate([y_true,y_true_fit,y_pred,y_pred_fit]))*0.95\\n\",\n    \"    xy_max = max(np.concatenate([y_true,y_true_fit,y_pred,y_pred_fit]))*1.05\\n\",\n    \"    xy_diff = xy_max - xy_min\\n\",\n    \"    \\n\",\n    \"    _ = plt.figure(figsize=(5,5))\\n\",\n    \"    _ = plt.scatter(y_pred_fit, y_true_fit, c='b', alpha=0.1, label='train')\\n\",\n    \"    _ = plt.scatter(y_pred, y_true, c='r', alpha=0.2, label='test')\\n\",\n    \"    _ = plt.text(xy_min+xy_diff*0.7,xy_min+xy_diff*0.05,'MAE: %5.2f' % np.mean(np.abs(y_true - y_pred)),fontsize=12)\\n\",\n    \"    _ = plt.title('Property: ' + x)\\n\",\n    \"    _ = plt.xlim(xy_min,xy_max)\\n\",\n    \"    _ = plt.ylim(xy_min,xy_max)\\n\",\n    \"    _ = plt.legend(loc='upper left')\\n\",\n    \"    _ = plt.xlabel('Prediction')\\n\",\n    \"    _ = plt.ylabel('Observation')\\n\",\n    \"    _ = plt.plot([xy_min,xy_max],[xy_min,xy_max],ls=\\\"--\\\",c='k')\\n\",\n    \"    _ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Here, we define a class that return mean and std based on a list of models.\\n\",\n    \"Note that the class must have a function called \\\"predict\\\" that takes a descriptor input and return first mean, then standard deviation. Here, we add a constant noise variance to the model variable calculated from the bootstrapped models.\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 23,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"class bootstrap_fcn():\\n\",\n    \"    def __init__(self, ms, var):\\n\",\n    \"        self.Ms = ms\\n\",\n    \"        self.Var = var\\n\",\n    \"    def predict(self, x):\\n\",\n    \"        val = np.array([m.predict(x) for m in self.Ms])\\n\",\n    \"        return np.mean(val, axis = 0), np.sqrt(np.var(val, axis = 0) + self.Var)\\n\",\n    \"    \\n\",\n    \"# include basic measurement noise\\n\",\n    \"c_var = {'E': 650, 'HOMO-LUMO gap': 0.5}\\n\",\n    \"\\n\",\n    \"# generate a dictionary for the final models used to create the likelihood\\n\",\n    \"custom_mdls = {key: bootstrap_fcn(value, c_var[key]) for key, value in mdls.items()}\\n\",\n    \"    \\n\",\n    \"# import descriptor calculator and forward model to iQSPR\\n\",\n    \"prd_mdls = GaussianLogLikelihood(descriptor=RDKit_FPs, targets=target_range, **custom_mdls)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Once again, we can make predictions and calculate the likelihood values for the full data set.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 24,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"      E: mean     E: std  HOMO-LUMO gap: mean  HOMO-LUMO gap: std\\n\",\n      \"0  196.772149  26.245443             5.871948            0.707692\\n\",\n      \"1  124.620714  25.908334             5.461932            0.708542\\n\",\n      \"2  198.678938  26.283615             5.275575            0.708301\\n\",\n      \"3  222.938083  25.850088             7.515128            0.707791\\n\",\n      \"4   85.459304  25.555155             5.184740            0.708865\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 576x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 7.8 s, sys: 324 ms, total: 8.12 s\\n\",\n      \"Wall time: 9.92 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"pred = prd_mdls.predict(data_ss['SMILES'])\\n\",\n    \"print(pred.head())\\n\",\n    \"\\n\",\n    \"# calculate log-likelihood for a given target property region\\n\",\n    \"tmp_ll = prd_mdls.log_likelihood(data_ss['SMILES'])\\n\",\n    \"tmp = tmp_ll.sum(axis = 1, skipna = True)\\n\",\n    \"\\n\",\n    \"# plot histogram of likelihood values\\n\",\n    \"_ = plt.figure(figsize=(8,5))\\n\",\n    \"_ = plt.hist(np.exp(tmp), bins=50)\\n\",\n    \"_ = plt.title('Likelihood for SMILES in the data subset')\\n\",\n    \"_ = plt.xlabel('Likelihood')\\n\",\n    \"_ = plt.ylabel('Counts')\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 25,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 432x360 with 2 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# check the predicted likelihood\\n\",\n    \"dot_scale = 0.5\\n\",\n    \"l_std = np.sqrt(pred['E: std']**2+pred['HOMO-LUMO gap: std']**2)\\n\",\n    \"\\n\",\n    \"_ = plt.figure(figsize=(6,5))\\n\",\n    \"rectangle = plt.Rectangle((0,0),200,3,fc='y',alpha=0.1)\\n\",\n    \"_ = plt.gca().add_patch(rectangle)\\n\",\n    \"im = plt.scatter(pred['E: mean'], pred['HOMO-LUMO gap: mean'], s=l_std*dot_scale, c=np.exp(tmp),alpha = 0.2,cmap=plt.get_cmap('cool'))\\n\",\n    \"_ = plt.title('Pubchem data')\\n\",\n    \"_ = plt.xlabel('E')\\n\",\n    \"_ = plt.ylabel('HOMO-LUMO gap')\\n\",\n    \"_ = plt.colorbar(im)\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 1-2min to complete!</span>**\\n\",\n    \"\\n\",\n    \"Use of multiple likelihood models is also supported. It is unnecessary in this example, but we will demonstrate how to do it by naively creating separate models for the two properties. Note that you can assign different descriptors to different likelihood models.\\n\",\n    \"\\n\",\n    \"By creating your own `BaseLogLikelihoodSet` object, you can combine likelihood models as you need. However, make sure you setup the models before hand, including training of the models and setting up the target regions.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 26,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 31.1 s, sys: 342 ms, total: 31.4 s\\n\",\n      \"Wall time: 33.2 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"from xenonpy.inverse.base import BaseLogLikelihoodSet\\n\",\n    \"\\n\",\n    \"prd_mdl1 = GaussianLogLikelihood(descriptor = RDKit_FPs, targets = {'E': (0, 200)})\\n\",\n    \"prd_mdl2 = GaussianLogLikelihood(descriptor = ECFP_plus_MACCS, targets = {'HOMO-LUMO gap': (-np.inf, 3)})\\n\",\n    \"\\n\",\n    \"prd_mdl1.fit(data_ss['SMILES'], data_ss['E'])\\n\",\n    \"prd_mdl2.fit(data_ss['SMILES'], data_ss['HOMO-LUMO gap'])\\n\",\n    \"\\n\",\n    \"class MyLogLikelihood(BaseLogLikelihoodSet):\\n\",\n    \"    def __init__(self):\\n\",\n    \"        super().__init__()\\n\",\n    \"        \\n\",\n    \"        self.loglike = prd_mdl1\\n\",\n    \"        self.loglike = prd_mdl2\\n\",\n    \"        \\n\",\n    \"like_mdl = MyLogLikelihood()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Calculating likelihood values is the same as before, but `BaseLogLikelihoodSet` does not support direct prediction of the properties unless users define one themselves.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 27,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 576x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 6.56 s, sys: 217 ms, total: 6.77 s\\n\",\n      \"Wall time: 8.53 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# calculate log-likelihood for a given target property region\\n\",\n    \"tmp_ll = like_mdl(data_ss['SMILES'])\\n\",\n    \"tmp = tmp_ll.sum(axis = 1, skipna = True)\\n\",\n    \"\\n\",\n    \"# plot histogram of likelihood values\\n\",\n    \"_ = plt.figure(figsize=(8,5))\\n\",\n    \"_ = plt.hist(np.exp(tmp), bins=50)\\n\",\n    \"_ = plt.title('Likelihood for SMILES in the data subset')\\n\",\n    \"_ = plt.xlabel('Likelihood')\\n\",\n    \"_ = plt.ylabel('Counts')\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### N-gram preparation\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 3-5min to complete!</span>**\\n\",\n    \"\\n\",\n    \"For prior, which is simply a molecule generator, we currently provide a N-gram model based on the extended SMILES language developed by our previous iQSPR developers. \\n\",\n    \"\\n\",\n    \"Note that because the default sample_order in `NGram` is 10, setting train_order=5 (max order to be used in iQSPR) when fitting will cause a warning, and XenonPy will automatically set sample_order=5 (actual order to be used when running the iQSPR).\\n\",\n    \"\\n\",\n    \"There is a default lower bound to the train_order and sample_order = 1, representing to use at least one character as a reference for generating the next character. We do not recommend altering this number.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 28,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/opt/miniconda3/envs/MB16_xepy37_v06_test_env/lib/python3.7/site-packages/xenonpy/inverse/iqspr/modifier.py:169: RuntimeWarning: max <sample_order>: 10 is greater than max <train_order>: 5,max <sample_order> will be reduced to max <train_order>\\n\",\n      \"  (self.sample_order[1], self._train_order[1]), RuntimeWarning)\\n\",\n      \"100%|██████████| 3000/3000 [01:22<00:00, 36.26it/s]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 1min 22s, sys: 1.48 s, total: 1min 23s\\n\",\n      \"Wall time: 1min 22s\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"NGram(ngram_table=[[[              C     (    N     &    !     O   Cl  Br   F   S  ...  [Si]  [Se]  \\\\\\n\",\n       \"['C']      4670  2029  490  2371  621   534   38  19  34  57  ...    10     1   \\n\",\n       \"[')']      2023   417  716     0    0  1014  252  48  72  80  ...     3     0   \\n\",\n       \"['N']       381   261   29   187  318     9    1   0   0   1  ...     1     0   \\n\",\n       \"[0]         113     8   31     2  552    33   12   4   6   5  ...     0     0   \\n\",\n       \"['O']       787     0   11     0  715     7    0   0   0   4  ...    10     0   \\n\",\n       \"['Cl']        0     0    0     0  304     0    0   0   0   0  ...     0     0   \\n\",\n       \"['Br']        0     0    0     0   73     0    0   1   0   0  ...     0     0   \\n\",\n       \"['F']         0     0    0     0  112     0    0   0   0   0  ...     1     0   \\n\",\n       \"['S']        84    38    3     0   20     0    0   0   0   7  ...     0     0   \\n\",\n       \"['B']         0     4    0     0    0     0    0   0   0   0  ...     0     0   \\n\",\n       \"['[N+]']      0    84    0     1    0     0    0   0   0   0  ...     0     0   \\n\",\n       \"['[O-]']      0     0    0     0   85     0    0...\\n\",\n       \"['(', '=O', ')', 'C', '=C']  1  0  0   0  0  0  0   0  0\\n\",\n       \"['=O', ')', 'C', '=C', 'C']  0  0  0   0  0  0  0   0  1\\n\",\n       \"[1, 'C', '&', '=C', '(']     1  0  0   0  0  0  0   0  0\\n\",\n       \"['(', 'C', '=C', 'C', '=C']  0  0  0   0  0  0  0   0  1,\\n\",\n       \"                                                  =C  1  (  C\\n\",\n       \"['(', 'C', '=C', 'C', '&']    1  0  0  0\\n\",\n       \"['C', '=C', 'C', '&', '=C']   0  2  0  0\\n\",\n       \"['&', '=C', 1, 'C', '&']      1  0  0  0\\n\",\n       \"['=C', 1, 'C', '&', '=C']     0  0  1  0\\n\",\n       \"[1, 'C', '&', '=C', '(']      0  0  0  1\\n\",\n       \"['C', '&', '=C', '(', 'C']    1  0  0  0\\n\",\n       \"['&', '=C', '(', 'C', '=C']   0  1  0  0\\n\",\n       \"[')', 'C', '=C', 'C', '&']    1  0  0  0]]],\\n\",\n       \"      sample_order=(1, 5))\"\n      ]\n     },\n     \"execution_count\": 28,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# N-gram library in XenonPy-iQSPR\\n\",\n    \"from xenonpy.inverse.iqspr import NGram\\n\",\n    \"\\n\",\n    \"# initialize a new n-gram\\n\",\n    \"n_gram = NGram()\\n\",\n    \"\\n\",\n    \"# train the n-gram with SMILES of available molecules\\n\",\n    \"n_gram.fit(data_ss['SMILES'],train_order=5)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Let us take a look at the molecules generated by our trained N-gram.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 29,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Round 0 ['CC(C)CN1CC(C1)C1=CC=CC=C1', 'C1=CC(=CN=C1)S', 'C1=CC(=CC=C1CC(C(=O)O)N)Cl', 'CCCCCC(=O)OCC1=CC=C(C=C1)O', 'C1=CC(=C(C=C1O)C(=O)O)[N+](=O)[O-]']\\n\",\n      \"Round 1 ['CC(C)CN1CC(C1)C1=CC=CC=C1', 'C1=CC(=CN=C1)Cl', 'C1=CC(=CC=C1CCCC(=O)O)OC', 'CCCCCC(=O)OCC1=CC=C(C=C1)C(C)N(CCCCC)C=C(C(=C)O)C(=O)N(C)S(=O)(=O)O', 'C1=CC(=C(C=C1O)C(=O)O)CCO']\\n\",\n      \"Round 2 ['CC(C)CN1CC(C1)C1=CC=CC=C1', 'C1=CC(=CN=C1)C1=CC(=CC(=C1)OC)O', 'C1=CC(=CC=C1CCCC(=O)O)C(=O)C', 'CCCCCC(=O)OCC1=CC=C(C=C1)C(C)N(CCCCC)C=C(C(=C)O)C(=O)N(C)S(=O)C1=CC(=CC=C1NC(=O)C(CCCC1C(C(C1)O)O)N=C(N)N)O', 'C1=CC(=C(C=C1O)C(=O)O)CCN']\\n\",\n      \"Round 3 ['CC(C)CN1CC(C1)C1=CC=CC=C1', 'C1=CC(=CN=C1)C1=CC(=CC=C1)Cl', 'C1=CC(=CC=C1CCCC(=O)O)Cl', 'CCCCCC(=O)OCC1=CC=C(C=C1)C(C)N(CCCCC)C=C(C(=C)O)C(=O)N(C)S(=O)C1=CC(=CC=C1NC(=O)C(CCCC1C(C(C1)O)O)N)OCC(CO)N', 'C1=CC(=C(C=C1O)O)N']\\n\",\n      \"Round 4 ['CC(C)CN1CC(C1)C1=CC=CC=C1', 'C1=CC(=CN=C1)C#N', 'C1=CC(=CC=C1CCCCCC(=O)C(C1=CC=CC2=CC=CC=C2CCC2=CC=C(C=C2)Cl)NC(=N1)NCCCOC)C', 'CCCCCC(=O)OCC1=CC=C(C=C1)C(C)N(CCCCC)C=C(C(=C)O)C(=O)N(C)S(=O)C1=CC(=CC=C1NC(=O)C(CCCC1C(C(C1)O)O)N)OCC(=O)C1=CC=C(C=C1)CCO', 'C1=CC(=C(C=C1)C(=N)N=[N+]=[N-])Cl']\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"np.random.seed(201903) # fix the random seed\\n\",\n    \"\\n\",\n    \"# perform pure iQSPR molecule generation starting with 5 initial molecules\\n\",\n    \"n_loop = 5\\n\",\n    \"tmp = data_ss['SMILES'][:5]\\n\",\n    \"for i in range(n_loop):\\n\",\n    \"    tmp = n_gram.proposal(tmp)\\n\",\n    \"    print('Round %i' % i,tmp)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Our N-gram-based molecular generator runs as follow:\\n\",\n    \"1. given a tokenized SMILES in the extended SMILES format, randomly delete N tokens from the tail,\\n\",\n    \"2. generate the next token using the N-gram table until we hit a termination token or a pre-set maximum length,\\n\",\n    \"3. if generation ended without a termination token, a simple gramma check will be performed trying to fix any invalid parts, and the generated molecule will be abandoned if this step fails. \\n\",\n    \"\\n\",\n    \"Because we always start the modification from the tail and SMILES is not a 1-to-1 representation of a molecule, we recommend users to use the re-order function to randomly re-order the extended SMILES, so that you will not keep modifying the same part of the molecule. To do so, you can use the \\\"set_params\\\" function or do so when you initialize the N-gram using \\\"NGram(...)\\\". In fact, you can adjust other parameters in our N-gram model this way.\\n\",\n    \"\\n\",\n    \"Note that we did not re-order the SMILES when training our N-gram model, it is highly possible that a re-ordered SMILES during the generation process will lead to substrings that cannot be found in the pre-trained N-gram table, causing a warning message and the molecule will be kept the same.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 32,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Round 0 ['CC(C)CN1CC(C1)C1(CCN(CC1)C)C1=CNC2=C1C=C(C=C2)Br', 'C1=CC(=CN=C1)C(=O)OCCO', 'C1=CC(=CC=C1CC(C(=O)O)N)N(CCCl)C(=O)CN1CCN(C1)C1=CC(=C(C(=C1)Cl)N=NC1=C(C=CC(=C1Cl)C)OC)N', 'O=C(CCCCC)Cl', 'C1=CC(=C(C=C1O)C(=O)O)O']\\n\",\n      \"Round 1 ['C1C(C2(c3c[nH]c4ccc(Br)cc34)CCN(C)CC2)CCC2=CC(=O)N2C1', 'C1=CC(=CN=C1)C(=O)OCCO', 'C1=CC(=CC=C1CC(C(=O)O)N)N(CCCl)C(=O)CN1CCN(C1)C1=CC(=C(C(=C1)Cl)N=NC1=C(C=CC(=C1Cl)C)OCC1=CC=CS1)O', 'O=C(C(=O)O)S', 'C1=CC(=C(C=C1O)C(C(=O)O)O)Cl']\\n\",\n      \"Round 2 ['C1C(C2(c3c[nH]c4ccc(Br)cc34)CCN(C)CC2)CCC2=CC(=O)N2C1', 'C1=CC(=CN=C1)C(=O)OC1=CC(=CC(=C1C)C(=O)O)C(=O)OCCCCCCCBr', 'C1=CC(=CC=C1CC(C(=O)O)N)N(CCCl)C(=O)CN1CCN(C1)C1=CC(=C(C(=C1)Cl)N=NC1=C(C=CC(=C1Cl)C)OCC1=CC=CC=C1)N', 'O=C(CCl)N1CCCCCOCCCCOCCCCOC(C(O1)OCC1=CC=CC=C1)COC(=O)C(=C)C(=O)OCCN(C)CC1=CNC2=CC=CC=C12', 'C1=CC(=C(C=C1O)C(C(=O)O)NC(C)C)C(=O)OC1=CC(=C(C=C1)Cl)O']\\n\",\n      \"Round 3 ['C1C(C2(c3c[nH]c4ccc(Br)cc34)CCN(C)CC2)CCC2=CC(=O)N2C1', 'C1=CC(=CN=C1)C(=O)OC1=CC(=CC(=C1C)C(=O)O)C(=O)OCCCCF', 'C1=CC(=CC=C1CC(C(=O)O)N)N(CCCl)C(=O)CN1CCN(C1)C1=CC(=C(C(=C1)Cl)N=NC1=C(C=CC(=C1Cl)C)OCCN(CC)C)Cl', 'O=C(CCl)N1CCCCCOCCCCOCCCCOC(C(O1)OCC1=CC=CC=C1)COC(=O)C(=C)C(=O)OCCN(C)CC1=CNC2=C1C(=O)N2', 'C1=CC(=C(C=C1O)C(C(=O)O)NC(C)C)C(=O)OC1=CC(=C(C=C1)Cl)O']\\n\",\n      \"Round 4 ['C1C(C2(c3c[nH]c4ccc(Br)cc34)CCN(C)CC2)CCC2=CC(=O)N2C1', 'C1=CC(=CN=C1)C(=O)OC1=CC(=CC(=C1C)C(=O)O)C(=O)OCCCC', 'c1(Cl)c(C)ccc(OCCN(C)CC)c1N=Nc1c(Cl)cc(N2CCN(CC(=O)N(CCCl)c3ccc(CC(N)C(=O)O)cc3)C)OC1C(C=C2)CCCCCC', 'O=C(CCl)N1CCCCCOCCCCOCCCCOC(C(O1)OCC1=CC=CC=C1)COC(=O)C(=C)C(=O)OCCN(C)CC1=CNC2=C1C=C(C=C2)COC(=O)C=C(C#N)C', 'C1=CC(=C(C=C1O)C(C(=O)O)NC(C)C)C(=O)OC1=CC(=C(C=C1)Cl)F']\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit ERROR: [10:15:49] Can't kekulize mol.  Unkekulized atoms: 18 19 20\\n\",\n      \"RDKit ERROR: \\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# change internal parameters of n_gram generator\\n\",\n    \"_ = n_gram.set_params(del_range=[1,10], max_len=500, reorder_prob=0.5)\\n\",\n    \"\\n\",\n    \"np.random.seed(201906) # fix the random seed\\n\",\n    \"\\n\",\n    \"# perform pure iQSPR molecule generation starting with 10 PG molecules\\n\",\n    \"n_loop = 5\\n\",\n    \"tmp = data_ss['SMILES'][:5]\\n\",\n    \"for i in range(n_loop):\\n\",\n    \"    tmp = n_gram.proposal(tmp)\\n\",\n    \"    print('Round %i' % i,tmp)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"To avoid getting stuck at certain molecule structures due to the re-ordering issue, we recommend two solutions: \\n\",\n    \"\\n\",\n    \"1. Avoid re-ordering: standardize the SMILES to a single format and avoid re-ordering during generation process. To avoid not modifying only certain part of the molecule, pick a larger maximum number for \\\"del_range\\\". This way, you will save time on training the N-gram model, but probably need more iteration steps during the actual iQSPR run for convergence to your target property region. This is recommend only if you are really out of computing power for training a big N-gram table.\\n\",\n    \"\\n\",\n    \"2. Data augmentation: expand your training set of SMILES by adding re-ordered SMILES of each originally available SMILES. Be careful of the bias to larger molecules due to more re-order patterns for longer SMILES. This way, you will need longer time to train the N-gram model, but probably converge faster in the actual iQSPR run.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 5-10min to complete!</span>**\\n\",\n    \"\\n\",\n    \"You can skip this part and proceed forward\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 33,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit WARNING: [10:17:27] WARNING: not removing hydrogen atom without neighbors\\n\",\n      \"100%|██████████| 3000/3000 [04:09<00:00, 12.02it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 4min 9s, sys: 2.07 s, total: 4min 11s\\n\",\n      \"Wall time: 4min 10s\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# Method 1: use canonical SMILES in RDKit with no reordering\\n\",\n    \"cans = [Chem.MolToSmiles(Chem.MolFromSmiles(smi)) for smi in data_ss['SMILES']]\\n\",\n    \"n_gram_cans = NGram(reorder_prob=0)\\n\",\n    \"n_gram_cans.fit(cans)\\n\",\n    \"\\n\",\n    \"# save results\\n\",\n    \"with open('ngram_cans.obj', 'wb') as f:\\n\",\n    \"    pk.dump(n_gram_cans, f)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next TWO modules may take 5-10hr to complete!</span>**\\n\",\n    \"\\n\",\n    \"You can skip the next TWO cells for time-saving and use our pre-trained `NGram` to proceed forward. Downloading is available at:\\n\",\n    \"* https://github.com/yoshida-lab/XenonPy/releases/download/v0.6.2/ngram_pubchem_ikebata_reO15_O10.xz\\n\",\n    \"* https://github.com/yoshida-lab/XenonPy/releases/download/v0.6.2/ngram_pubchem_ikebata_reO15_O11to20.xz\\n\",\n    \"\\n\",\n    \"Using the merge table function in `NGram`, we can train and store the big `NGram` tables separately, and combine them later, as will be demonstrated below. Note that the most efficient way to manually parallelize the training of `NGram` is NOT to split the order, but to split the training set of SMILES strings, which is not what we are doing here.\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 34,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit WARNING: [10:21:49] WARNING: not removing hydrogen atom without neighbors\\n\",\n      \"RDKit ERROR: [10:21:52] Explicit valence for atom # 1 Br, 5, is greater than permitted\\n\",\n      \"RDKit WARNING: [10:21:52] WARNING: not removing hydrogen atom without neighbors\\n\",\n      \"RDKit WARNING: [10:21:52] WARNING: not removing hydrogen atom without neighbors\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"FBr(F)(F)(F)F\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit WARNING: [10:21:53] WARNING: not removing hydrogen atom without neighbors\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"iVBORw0KGgoAAAANSUhEUgAAAX8AAAEJCAYAAAB8Pye7AAAAOXRFWHRTb2Z0d2FyZQBNYXRwbG90bGliIHZlcnNpb24zLjMuMiwgaHR0cHM6Ly9tYXRwbG90bGliLm9yZy8vihELAAAACXBIWXMAAAsTAAALEwEAmpwYAAAlRklEQVR4nO3dfVhUVeIH8O/A8GZghjsTReSaqRSWrJhG5pBagMKITlpKRWWm9oJlprJCkKn5shhZLq1PsW5ZbRGgqItDlkoqJokZUrb5tEKKCiNqOggDzJzfH/ycHF4EBuTF8/08D0/MnXPvOfd459vl3DvnKoQQAkREJBWHzm4AERF1PIY/EZGEGP5ERBJi+BMRSYjhT0QkIYY/EZGEGP5dyMCBA3HmzBmbZRkZGZg5cyYAYPXq1di4ceMVt7FmzRp89dVXV6uJbWY2m/Hcc88hJCQEH3/8cWc3p1ExMTFISUnpsPoSEhIwevRoJCUlNXgvIyMDOp0O48ePR1hYGGJjY3HhwgXrewMHDsQ777xjs44QAmPGjEF4eDgA4Pjx4/jLX/7S4PfG6goICEBERITNz/z5861l3n//fURERGD8+PEIDw/HihUrUF1d3S79UF9Ljvcr2blzJ1avXt1+DbrGKDu7AdRyL730UrNl9u3bh9tvv70DWmOf0tJS7N69GwcPHoSjo2NnN6dL+Pzzz7Fz5054eXnZLC8oKMDf//53pKeno1evXjCbzVi0aBFef/11rFq1CgBw8803Y9OmTZg9e7Z1vf3796Oqqgpubm6tbsvQoUOxdu3aRt/bunUrvvrqK3z++edwdXWFyWTC7NmzsWbNGrzyyiutrqs5LTner+TQoUP4/fff26k11x6GfzcSExOD/v3745lnnsE777yDbdu2wcnJCTfccAOWLVuGbdu2obCwECtXroSjoyPuvfdeLFq0CD///DMUCgVGjhyJV155BUqlEjk5OUhMTISDgwPuuOMO5Obm4tNPP0VeXh7S0tJQWVkJd3d3rF27Fq+//jqKi4tx7tw5XHfddUhMTMRtt92GJ554An5+fjh48CDOnDmDRx55BKdPn0ZeXh4qKyvx9ttvY+DAgdb2G41GTJ8+HbW1tdDpdHj33XdRVlaGlStXorKyEk5OTnj55Zeh0WiQkZFh047169fb9MVdd92FGTNmYM+ePSgrK8P06dMRGRmJjIwMZGdnWwPs8tcxMTFwdXXFL7/8gvLycowePRq9evXCjh07YDAYsGTJEgQGBgIA8vPzkZ2dDaPRiBEjRmDBggVQKpX49ddfsXTpUpw7dw5msxlPPPEEJk2ahH379mHp0qXo0aMHKioqkJ6eDmdnZ2t7jxw5gjfeeAPnzp2DQqHAtGnTMGHCBERGRkIIgWeffRYJCQkYOnSodR2DwQAhBKqqqgAAjo6OeOmll3DkyBFrmQEDBuDkyZM4cOAAhgwZAgDYsGEDxo8fj127drXr8WcwGGA2m1FVVQVXV1e4uLjgtddea/DXKgDMnTsXfn5+mDZtGgBYj6233noLb775Jn744QdUVFRACIElS5YgICAAMTExOHfuHI4dO4YHHngA5eXl1uM9LS0Nn3/+OWpqavD777/j2Weftf57b9u2DQ4ODiguLoarqytWrFgBo9GIzz77DGazGR4eHnj88cexYMECnD17FgAQFBSEl19+uV37p9sR1GUMGDBAhIeHi/Hjx1t/goKCxIwZM4QQQixYsEB88MEH4sSJE2LIkCHCZDIJIYRISUkR27ZtE0II8fjjj4utW7cKIYSYP3++WLx4sbBYLMJkMolp06aJtWvXijNnzohhw4aJw4cPCyGEyMjIEAMGDBDHjh0T6enp4p577hEXLlwQQgixdetWsXjxYmsbX3vtNfHGG29Y63rxxReFEEIcPHhQDBgwQHz99ddCCCGWLl0q4uLiGuzjsWPHhL+/vxBCiDNnzojAwEBx8OBBIYQQv/zyixg2bJj47bffGrSjsb5av369EEKIQ4cOiUGDBomqqiqRnp5u7S8hhM3rBQsWiMmTJ4vq6mpRVlYmBgwYID766CMhhBD/+te/xNNPP20tN3HiRFFRUSFMJpN4/PHHxSeffCJqamrEuHHjRGFhoRBCiPPnz4uxY8eK77//Xnz77bfC19dXHD9+vEFba2pqxJgxY0R2drYQQohTp06JkSNHigMHDlj3pby8vMF61dXV4pVXXhF33HGHmDBhgli0aJHYsWOHsFgsNvuWkpIi4uPjhRBCXLx4UQQHB4s9e/aIsLCwBn1++e/1paeniyFDhtgcf+PHjxdpaWnW/X366aeFn5+feOSRR8SyZctEXl5eo9vau3evCA8Pt76eNGmS2LNnjzhw4ICIjo4WZrNZCCHE2rVrxcyZM639/uSTT1rXuXS8G41G8cgjj4gzZ84IIYT4/vvvrfuQnp4uAgICxMmTJ4UQQrzxxhti/vz5Qggh3nnnHbFo0SIhhBBr1qwRr732mhBCiIqKCvHyyy+L8+fPN9p2WfDMv4v58MMP4enpaX196cz1cjfeeCN8fX0xceJEaDQaaDQa6xnr5b755hv8+9//hkKhgLOzM6ZMmYIPP/wQffv2Rb9+/eDr6wsAmDhxIpYsWWJdb+DAgXB3dwcAhIaGwsfHB+vXr0dxcTHy8vJsxowfeughAICPjw8AYOTIkQCAW2+9FXl5eVfc14KCAtx6660YPHgwAKB///4YMmQI8vLyoFAobNrRmDFjxgAA/Pz8UF1djYsXL16xPgAYNWoUnJycoFKp0KNHD5v2njt3zlouIiICPXr0AACMHz8eOTk5GDZsGH777TcsXLjQWq6qqgo//fQT+vXrh5tuugne3t4N6iwqKoLJZEJwcDCAun+/4OBg7Nq1q8nxdwBwcnLCqlWrMH/+fOzbtw/fffcdFixYgMDAQLz99tvWclqtFhEREYiNjcW2bdswevRou4fUrjTs4+HhgX/+8584duwYvv32W+Tl5WHGjBmIjIzEvHnzbMoOHz4cJpMJhw4dgpubG86cOYPAwEAoFApcf/31+Oyzz3Ds2DHs27cP1113nXW9gICABvVed911+Mc//oGcnBwUFRXh559/tvm39vPzsw6Z3Xnnndi2bVuDbYwcORIzZszAyZMncd9992Hu3Lnw8PCwq4+uFbzg2w05ODjg448/xrJly9CrVy+8+eabWLlyZYNyFosFCoXC5nVtbS0cHR0h6k3p5ODwx6FwKfSAuj/XY2Nj4erqCq1Wi/DwcJt1Lx/aAOoCq6XMZrNN+4C6i5W1tbUN2tEYFxcXALBuQwgBhUJh076amhqbdeq3V6ls/Pzn8vAUQkCpVFqHEDIzM60/qampePjhh6/Y3ub2sylpaWn4+uuvceONN2L8+PFYvHgxNmzYAL1ebzPUolKpcOedd+Kbb77Bxo0bMXHixCtu117vv/8+Dhw4AB8fH0yePBl/+9vf8P777+PTTz9tUFahUGDSpEnIzMxEeno6Jk2aBIVCgZ07d1pvYBgzZgymTp1qs15jfXjq1ClMmDABJSUlCAgIaDBc4+rqalNv/WMbAO6++258/fXXePTRR1FSUoLJkyejsLDQnm64ZjD8u6Gff/4Z4eHh6NevH2bOnImnnnoKhw4dAlAXWpdC5f7778fHH38MIQSqq6uRmpqK++67D0OGDLGeQQFAdnY2zp8/3yCgAGD37t2YOHEiJk+ejL59+2L79u0wm83tsh/+/v743//+h4KCAgB14+Lfffcdhg0bZvc2PT09ceTIEZhMJtTU1DT4q6ml/vOf/6C6uhomkwkbNmyARqNB37594erqiszMTADAyZMnER4e3myI3HbbbVAqlfjyyy8B1F30zs7Oxn333XfF9RwcHJCYmIhTp05Zlx05cgQ333wzrr/+epuyEyZMwLp163DhwgUMGDDAnl1uVlVVFVatWmXzF9Ivv/yCO++8s9HyEydOxPbt25GdnQ2dTgcA2LNnD0aNGoXIyEgMGjQIX331VbPHU2FhITw9PfH888/j/vvvx44dOwCg2fUu/ywkJiYiOTkZDz74IGJjY3H77bfbXDuREYd9uiFfX1+MHTsWDz/8MHr06AFXV1fExcUBAEaPHo233noLNTU1iIuLw5IlS6DValFTU4ORI0di1qxZcHZ2xltvvYUFCxbAwcEBgwYNglKpbPTukGnTpiE+Ph5paWkA6gL7l19+aZf98PT0xOrVq7F48WJUVVVBoVBg2bJl6Nu3L77//nu7tjlixAjcc889GDt2LFQqFYYPH47//ve/rd7OLbfcgsjISFRUVOChhx7CxIkToVAokJycjKVLl+KDDz5AbW0tXnrpJQQEBGDfvn1NbsvJyQnJyclYsmQJ3n33XZjNZrzwwgu49957r9gGnU6HyspKPPvss6iuroZCocCf//xnpKSkNBjWefDBB5GQkIA5c+Y0u28XL15sMNz02WefAai7UygiIsLmPUdHR2RkZOD555+HQqHAlClToFAoYLFYMGjQIJshqMtd+ouktrYWN954IwBgypQpmDt3LrRaLWprazFixAh8+eWXsFgsTbZ3xIgRSEtLQ2hoKBQKBYYNGwZPT08UFxdfcT/vvfdevPrqq1i8eDFmzZqFmJgYhIeHw9nZGQMHDkRYWFhzXXVNU4jG/kaia5rRaERycjKio6Ph5uaGH3/8ETNnzsSuXbsaPfsnomsPz/wl5O7uDicnJ0yaNAlKpRJKpRJvv/02g59IIjzzJyKSEC/4EhFJiOFPRCQhhj8RkYQY/kREEuo2d/ucPVsBi6Xpa9O9e7ujvNzYgS3qmtgPddgPddgPdWTsBwcHBW644bom3+824W+xiCuG/6UyxH64hP1Qh/1Qh/1gi8M+REQSYvgTEUmoReFvNBoRHh6O48ePA6h78lB4eDi0Wi3++te/Wh/jdvjwYeh0OoSEhCA2NtY6qdKJEyfw2GOPITQ0FM899xwqKiqu0u4QEVFLNBv+P/zwA6ZOnYqioiIAwNGjR5GSkoLPPvsMmzZtgsVisU7pOm/ePMTHxyM7OxtCCKSmpgIAFi1ahMjISOj1egwaNAjJyclXb4+IiKhZzYZ/amoqEhISoFarAdTNh56QkAB3d3coFAoMGDAAJ06cQElJCaqqquDv7w+gbkZCvV6PmpoafPfddwgJCbFZTkREnafZu32WLl1q89rb29v6tKIzZ87gk08+wbJly1BWVgaVSmUtp1KpUFpairNnz8Ld3d360IxLy1urd++mn+j0R51yP5nnEvZDHfZDHfZDHfaDLbtv9SwtLcX06dPx8MMPY/jw4cjPz7eZFfLypyrVny3Sntkjy8uNV7xVS6XygMFwodXbvdawH+qwH+qwH+rI2A8ODoornjTbFf6//vorpk+fjieeeALTpk0DAHh5ecFgMFjLnD59Gmq1Gp6enrhw4QLMZjMcHR1hMBisQ0jUOh493eDqYvtPVmWqxYXzlZ3UIiLqrlod/kajEc888wxefvllTJgwwbrc29sbLi4uyM/PR0BAADIzM6HRaODk5IShQ4ciKysLWq0WGzduhEajac99kIarixLauZk2yzavioBc5zNE1B5afZ9/WloaTp8+jXXr1iEiIgIRERFYvXo1gLrnZC5btgyhoaG4ePEioqKiAAAJCQlITU3FuHHjsH///gYPYCYioo7VbR7mwjH/un1s7Mz/8v2WoR9agv1Qh/1QR8Z+aG7Mn9/wJSKSEMOfiEhCDH8iIgkx/ImIJMTwJyKSEMOfiEhCDH8iIgkx/ImIJMTwJyKSULd5gDs1rrrGbDNVbXWNuUEZTghHRPUx/Ls5ZydHmykfNq+KaFCGE8IRUX0c9iEikhDDn4hIQgx/IiIJccy/C2vsQi0RUXtgsnRh9S/UNnYxl4jIHhz2ISKSEMOfiEhCDH8iIgkx/ImIJMTwJyKSEO/2kVT9OYE41w+RXBj+kmpsTiDO9UMkDw77EBFJiOFPRCQhhj8RkYRaFP5GoxHh4eE4fvw4ACA3NxdarRbBwcFISkqyljt8+DB0Oh1CQkIQGxuL2tpaAMCJEyfw2GOPITQ0FM899xwqKiquwq50Hx493aBSedj8ePR06+xmEZFEmg3/H374AVOnTkVRUREAoKqqCgsXLkRycjKysrJQWFiInJwcAMC8efMQHx+P7OxsCCGQmpoKAFi0aBEiIyOh1+sxaNAgJCcnX7096gYuzdlz+Q8ncCOijtRs+KempiIhIQFqtRoAUFBQgD59+sDHxwdKpRJarRZ6vR4lJSWoqqqCv78/AECn00Gv16OmpgbfffcdQkJCbJYTEVHnafZ0c+nSpTavy8rKoFKprK/VajVKS0sbLFepVCgtLcXZs2fh7u4OpVJps7y1evd2b7bM5fetd0ft1X57t9Pd+6++a21/7MV+qMN+sNXqsQaLxQKFQmF9LYSAQqFocvml/16u/uuWKC83wmIRTb6vUnnAYOged6o3dRDWb7+9B6u92+ku/dcS3el4uJrYD3Vk7AcHB8UVT5pbfbePl5cXDAaD9bXBYIBarW6w/PTp01Cr1fD09MSFCxdgNpttyhMRUedpdfgPHjwYR48eRXFxMcxmM7Zs2QKNRgNvb2+4uLggPz8fAJCZmQmNRgMnJycMHToUWVlZAICNGzdCo9G0714QEVGrtHrYx8XFBcuXL0d0dDRMJhOCgoIQGhoKAEhMTERcXByMRiP8/PwQFRUFAEhISEBMTAzee+893HTTTXjrrbfady+IiKhVWhz+27dvt/4eGBiITZs2NSjj6+uLtLS0Bsu9vb2xfv16O5tIRETtjd/wJSKSEMOfiEhCDH8iIglxTgFqkkdPN5tpJ/jAF6JrB8OfmnRpDqJL+MAXomsHh32IiCTE8CcikhDDn4hIQgx/IiIJMfyJiCTE8CcikhBv9ewA9e+XJyLqbEykDtDY/fJERJ2Jwz5ERBJi+BMRSYjhT0QkIYY/EZGEGP5ERBLi3T7UYtU1ZqhUHjbLOM0zUffE8KcWc3ZytLllFeA0z0TdFYd9iIgkxPAnIpIQw5+ISEIMfyIiCTH8iYgk1Kbwz8zMRFhYGMLCwrBixQoAQG5uLrRaLYKDg5GUlGQte/jwYeh0OoSEhCA2Nha1tbVtazkREdnN7vCvrKzE0qVLsX79emRmZmL//v3Yvn07Fi5ciOTkZGRlZaGwsBA5OTkAgHnz5iE+Ph7Z2dkQQiA1NbXddoKIiFrH7vA3m82wWCyorKxEbW0tamtr4e7ujj59+sDHxwdKpRJarRZ6vR4lJSWoqqqCv78/AECn00Gv17fXPhARUSvZ/SUvd3d3vPTSSxg7dizc3Nxwzz33oKysDCqVylpGrVajtLS0wXKVSoXS0tK2tZyIiOxmd/j//PPPSE9Px44dO+Dh4YFXX30VRUVFUCgU1jJCCCgUClgslkaXt0bv3u7Nlqk/9UB3017tt3c7Hb3e1dZV29XR2A912A+27A7/3bt3IzAwEL179wZQN5STkpICR0dHaxmDwQC1Wg0vLy8YDAbr8tOnT0OtVreqvvJyIywW0eT7KpUHDIauOdFASw+6+u2392C1dzvttV5X0JWPh47EfqgjYz84OCiueNJs95i/r68vcnNzcfHiRQghsH37dgwePBhHjx5FcXExzGYztmzZAo1GA29vb7i4uCA/Px9A3V1CGo3G3qqJiKiN7D7zv//++/HTTz9Bp9PByckJd911F6KjozFixAhER0fDZDIhKCgIoaGhAIDExETExcXBaDTCz88PUVFR7bYTRETUOm2a1XPGjBmYMWOGzbLAwEBs2rSpQVlfX1+kpaW1pToiImon/IYvEZGEGP5ERBJi+BMRSYjhT0QkIYY/EZGE+AxfancePd3g6vLHocWHvBN1PQx/aneuLkqbB73zIe9EXQ+HfYiIJMTwJyKSEMOfiEhCDH8iIgkx/ImIJMTwJyKSEMOfiEhCDH8iIgkx/ImIJMRv+LZB/WkMAE5lQETdA8O/DepPYwBwKgMi6h447ENEJCGGPxGRhBj+REQSYvgTEUmI4U9EJCGGPxGRhBj+REQSYvgTEUmoTeG/fft26HQ6jB07FkuWLAEA5ObmQqvVIjg4GElJSdayhw8fhk6nQ0hICGJjY1FbW9u2lhMRkd3sDv9jx44hISEBycnJ2LRpE3766Sfk5ORg4cKFSE5ORlZWFgoLC5GTkwMAmDdvHuLj45GdnQ0hBFJTU9ttJ4iIqHXsDv9t27Zh3Lhx8PLygpOTE5KSkuDm5oY+ffrAx8cHSqUSWq0Wer0eJSUlqKqqgr+/PwBAp9NBr9e31z4QEVEr2T23T3FxMZycnDBr1iycPHkSDzzwAPr37w+VSmUto1arUVpairKyMpvlKpUKpaWlbWs5ERHZze7wN5vN2L9/P9avX48ePXrgueeeg6urKxQKhbWMEAIKhQIWi6XR5a3Ru7d7s2VUKo9WbfNqsbcd7dX+jq6/ufWqa8wNylTXmOHs5GhXfS3VVY6HzsZ+qMN+sGV3+P/pT39CYGAgPD09AQAPPvgg9Ho9HB3/+EAbDAao1Wp4eXnBYDBYl58+fRpqtbpV9ZWXG2GxiCbfV6k8YDB07HyaTR1M9dvR0oPO3vU6u/7m1nN2cmx09tOr+e/VGcdDV8R+qCNjPzg4KK540mz3mP+oUaOwe/dunD9/HmazGbt27UJoaCiOHj2K4uJimM1mbNmyBRqNBt7e3nBxcUF+fj4AIDMzExqNxt6qiYiojew+8x88eDCmT5+OyMhI1NTUYMSIEZg6dSpuu+02REdHw2QyISgoCKGhoQCAxMRExMXFwWg0ws/PD1FRUe22E0RE1DptepjLpEmTMGnSJJtlgYGB2LRpU4Oyvr6+SEtLa0t1RETUTvgNXyIiCTH8iYgkxPAnIpIQw5+ISEIMfyIiCTH8iYgkxPAnIpJQm+7zl41HTze4urDLiKj7Y5K1gquL0maOms2rIjqxNd1b/cneqky1uHC+shNbRCQXhj91ivqTvW1eFQG5pt0i6lwc8ycikhDDn4hIQgx/IiIJMfyJiCTE8CcikhDDn4hIQgx/IiIJ8T5/6rIa+0Z1S74M5tHTDQD4JTKiK2D4U5dV/xvVQMu+DGbvekQy4bAPEZGEeOZP3QrnBCJqHwx/6lY4JxBR++CwDxGRhBj+REQSYvgTEUmIY/4kBV4oJrLVLmf+K1asQExMDAAgNzcXWq0WwcHBSEpKspY5fPgwdDodQkJCEBsbi9ra2vaomqhFLl0ovvTDx3GS7Noc/nv37sWGDRsAAFVVVVi4cCGSk5ORlZWFwsJC5OTkAADmzZuH+Ph4ZGdnQwiB1NTUtlZNRER2alP4nzt3DklJSZg1axYAoKCgAH369IGPjw+USiW0Wi30ej1KSkpQVVUFf39/AIBOp4Ner29z44mIyD5tCv/4+HjMmTMHPXv2BACUlZVBpVJZ31er1SgtLW2wXKVSobS0tC1VExFRG9g98PnFF1/gpptuQmBgIDIyMgAAFosFCoXCWkYIAYVC0eTy1ujd273ZMpdf0OtM9rajvdrf0fVfK+2urjHD2cmxydfdVVf5XHQ29oMtu8M/KysLBoMBERER+P3333Hx4kWUlJTA0fGPD4vBYIBarYaXlxcMBoN1+enTp6FWq1tVX3m5ERaLaPJ9lcoDBsPV/a5nSw+e+u242ut1dv3XUrvrf3v4ah9TV1tHfC66Axn7wcFBccWTZrvDf926ddbfMzIykJeXh0WLFiE4OBjFxcW45ZZbsGXLFjz88MPw9vaGi4sL8vPzERAQgMzMTGg0GnurJiKiNmrX+91cXFywfPlyREdHw2QyISgoCKGhoQCAxMRExMXFwWg0ws/PD1FRUe1ZNRERtUK7hL9Op4NOpwMABAYGYtOmTQ3K+Pr6Ii0trT2qIyKiNuL0DkREEmL4ExFJiOFPRCQhhj8RkYQY/kREEmL4ExFJiOFPRCQhhj8RkYQY/kREEmL4ExFJiOFPRCQhPsiUqAn1H/oO8MHvdO1g+BM14dJD3y+3eVUE5JoVnq5VHPYhIpIQw5+ISEIMfyIiCTH8iYgkxAu+RG3k0dMNri5/fJR4RxB1Bwx/ojZydVHa3BXEO4KoO2D4/z+evRGRTBj+/49nb0QkE17wJSKSEMOfiEhCDH8iIglxzJ+onXFCOOoOGP5E7YwTwlF30KZhnzVr1iAsLAxhYWFYuXIlACA3NxdarRbBwcFISkqylj18+DB0Oh1CQkIQGxuL2tratrWciIjsZnf45+bmYvfu3diwYQM2btyIH3/8EVu2bMHChQuRnJyMrKwsFBYWIicnBwAwb948xMfHIzs7G0IIpKamtttOEBFR69gd/iqVCjExMXB2doaTkxP69euHoqIi9OnTBz4+PlAqldBqtdDr9SgpKUFVVRX8/f0BADqdDnq9vr32gajLu3Qd4NKPR0+3zm4SSc7uMf/+/ftbfy8qKsLWrVvx+OOPQ6VSWZer1WqUlpairKzMZrlKpUJpaWmr6uvd273ZMvUvsrWVvdvr6PU6u37Z2m3PevWvA2xeFQHXdj5em9Len4vuiv1gq80XfI8cOYKZM2di/vz5cHR0RFFRkfU9IQQUCgUsFgsUCkWD5a1RXm6ExSKafF+l8oDBYP8ltcYOjPrba+nB09HrdXb9srX7au3v1dDWz8W1QsZ+cHBQXPGkuU0XfPPz8/HUU09h7ty5mDhxIry8vGAwGKzvGwwGqNXqBstPnz4NtVrdlqqJiKgN7A7/kydP4oUXXkBiYiLCwsIAAIMHD8bRo0dRXFwMs9mMLVu2QKPRwNvbGy4uLsjPzwcAZGZmQqPRtM8eEBFRq9k97JOSkgKTyYTly5dbl02ZMgXLly9HdHQ0TCYTgoKCEBoaCgBITExEXFwcjEYj/Pz8EBUV1fbWExGRXewO/7i4OMTFxTX63qZNmxos8/X1RVpamr3VERFRO+LcPkREEmL4ExFJiHP7EHUR9Z8mB3BCOLp6GP5EXUT9p8kBnBCOrh4O+xARSYjhT0QkIQ77EHVh9R8Mw2sA1F4Y/kRdWGMTwvEaALUHDvsQEUlIyjP/xm6pIyKSiZQJ2NQtdUTdUf2TGV4XoJaQMvyJriX1T2Z4XYBagmP+REQSYvgTEUmI4U9EJCGGPxGRhBj+REQSYvgTEUmIt3oSXWPqzwekUnnw3n9qgOFPdI2pPx8QwHv/qSEO+xARSYjhT0QkIYY/EZGErvkxf87gSdQ4Tggnt2s+FTmDJ1HjOCGc3K758Ceilql/iyjQff8aaOwvfo+ebt1yX66WDg3/zZs347333kNtbS2efPJJPPbYYx1ZPRFdQWO3iKYvD+/y/0NoamiXt7teWYeFf2lpKZKSkpCRkQFnZ2dMmTIFw4cPx+23395RTSCiVuqK3xloLOw5tNt6HRb+ubm5uPfee9GrVy8AQEhICPR6PV588cUWre/goLC7jPoGN7uWNba9+mUa205Hr2dPu+1dr7u22971uuv+Xs1219+Wu7srXOqFsanaDBdnxz9em2phNFbZlGl0vUbK1efqosQzS760vk6JC75q7W5pm7qi5jJTIYQQHdGQtWvX4uLFi5gzZw4A4IsvvkBBQQEWL17cEdUTEdFlOuw+f4vFAoXij/8TCSFsXhMRUcfpsPD38vKCwWCwvjYYDFCr1R1VPRERXabDwv++++7D3r17cebMGVRWVuLLL7+ERqPpqOqJiOgyHXbB98Ybb8ScOXMQFRWFmpoaTJo0CXfffXdHVU9ERJfpsAu+RETUdXBiNyIiCTH8iYgkxPAnIpIQw5+ISELdPvw3b96McePGITg4GJ988klnN6fDGY1GhIeH4/jx4wDqptHQarUIDg5GUlJSJ7euY6xZswZhYWEICwvDypUrAcjZDwCwevVqjBs3DmFhYVi3bh0AefsCAFasWIGYmBgAcvdDo0Q3durUKTFq1Chx9uxZUVFRIbRarThy5EhnN6vDHDx4UISHhws/Pz9x7NgxUVlZKYKCgsRvv/0mampqxLRp08TOnTs7u5lX1Z49e8Sjjz4qTCaTqK6uFlFRUWLz5s3S9YMQQuzbt09MmTJF1NTUiMrKSjFq1Chx+PBhKftCCCFyc3PF8OHDxYIFC6T8bDSnW5/5Xz5ZXI8ePayTxckiNTUVCQkJ1m9KFxQUoE+fPvDx8YFSqYRWq73m+0OlUiEmJgbOzs5wcnJCv379UFRUJF0/AMCwYcPw0UcfQalUory8HGazGefPn5eyL86dO4ekpCTMmjULgJyfjeZ06/AvKyuDSqWyvlar1SgtLe3EFnWspUuXYujQodbXMvZH//794e/vDwAoKirC1q1boVAopOuHS5ycnPDOO+8gLCwMgYGBUh4TABAfH485c+agZ8+eAOT8bDSnW4c/J4uzJXN/HDlyBNOmTcP8+fPh4+MjbT8AwOzZs7F3716cPHkSRUVF0vXFF198gZtuugmBgYHWZTJ/NprSrR/j6OXlhf3791tfyz5ZnKyT5+Xn52P27NlYuHAhwsLCkJeXJ2U//Prrr6iursYdd9wBNzc3BAcHQ6/Xw9Hxj/npZeiLrKwsGAwGRERE4Pfff8fFixdRUlIiXT80p1uf+XOyOFuDBw/G0aNHUVxcDLPZjC1btlzz/XHy5Em88MILSExMRFhYGAA5+wEAjh8/jri4OFRXV6O6uhpff/01pkyZIl1frFu3Dlu2bEFmZiZmz56N0aNH44MPPpCuH5rTrc/8OVmcLRcXFyxfvhzR0dEwmUwICgpCaGhoZzfrqkpJSYHJZMLy5cuty6ZMmSJdPwBAUFAQCgoKMGHCBDg6OiI4OBhhYWHw9PSUri/qk/Gz0RxO7EZEJKFuPexDRET2YfgTEUmI4U9EJCGGPxGRhBj+REQSYvgTEUmI4U9EJCGGPxGRhP4Pli6dR6D/lRMAAAAASUVORK5CYII=\\n\",\n      \"text/plain\": [\n       \"<Figure size 432x288 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 24.5 s, sys: 74.4 ms, total: 24.6 s\\n\",\n      \"Wall time: 24.6 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# N-gram library in XenonPy-iQSPR\\n\",\n    \"from xenonpy.inverse.iqspr import NGram\\n\",\n    \"\\n\",\n    \"np.random.seed(201906) # fix the random seed\\n\",\n    \"\\n\",\n    \"# Method 2: expand n-gram training set with randomly reordered SMILES\\n\",\n    \"# (we show one of the many possible ways of doing it)\\n\",\n    \"n_reorder = 15 # pick a fixed number of re-ordering\\n\",\n    \"\\n\",\n    \"# convert the SMILES to canonical SMILES in RDKit (not necessary in general)\\n\",\n    \"cans = []\\n\",\n    \"for smi in data['SMILES']:\\n\",\n    \"    # remove some molecules in the full SMILES list that may lead to error\\n\",\n    \"    try:\\n\",\n    \"        cans.append(Chem.MolToSmiles(Chem.MolFromSmiles(smi)))\\n\",\n    \"    except:\\n\",\n    \"        print(smi)\\n\",\n    \"        pass\\n\",\n    \"\\n\",\n    \"mols = [Chem.MolFromSmiles(smi) for smi in cans]\\n\",\n    \"smi_reorder_all = []\\n\",\n    \"smi_reorder = []\\n\",\n    \"for mol in mols:\\n\",\n    \"    idx = list(range(mol.GetNumAtoms()))\\n\",\n    \"    tmp = [Chem.MolToSmiles(mol,rootedAtAtom=x) for x in range(len(idx))]\\n\",\n    \"    smi_reorder_all.append(np.array(list(set(tmp))))\\n\",\n    \"    smi_reorder.append(np.random.choice(smi_reorder_all[-1], n_reorder,\\n\",\n    \"                                        replace=(len(smi_reorder_all[-1]) < n_reorder)))\\n\",\n    \"\\n\",\n    \"n_uni = [len(x) for x in smi_reorder_all]\\n\",\n    \"_ = plt.hist(n_uni, bins='auto')  # arguments are passed to np.histogram\\n\",\n    \"_ = plt.title(\\\"Histogram for number of SMILES variants\\\")\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 39,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# flatten out the list and train the N-gram\\n\",\n    \"flat_list = [item for sublist in smi_reorder for item in sublist]\\n\",\n    \"\\n\",\n    \"# first train up to order 10\\n\",\n    \"n_gram_reorder1 = NGram(reorder_prob=0.5)\\n\",\n    \"_ = n_gram_reorder1.fit(flat_list, train_order=10)\\n\",\n    \"# save results\\n\",\n    \"_ = joblib.dump(n_gram_reorder1, 'ngram_pubchem_ikebata_reO15_O10.xz')\\n\",\n    \"# with open('ngram_pubchem_ikebata_reO15_O10.obj', 'wb') as f:\\n\",\n    \"#     pk.dump(n_gram_reorder1, f)\\n\",\n    \"    \\n\",\n    \"# Then, train up from order 11 to 20\\n\",\n    \"n_gram_reorder2 = NGram(reorder_prob=0.5, sample_order=(11, 20))\\n\",\n    \"_ = n_gram_reorder2.fit(flat_list, train_order=(11, 20))\\n\",\n    \"# save results\\n\",\n    \"_ = joblib.dump(n_gram_reorder2, 'ngram_pubchem_ikebata_reO15_O11to20.xz')\\n\",\n    \"# with open('ngram_pubchem_ikebata_reO15_O11to20.obj', 'wb') as f:\\n\",\n    \"#     pk.dump(n_gram_reorder2, f)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Here, we will load the two parts of the pre-trained `NGram` files and combine them for our use in the example. Note that you have the option to overwrite an existing `NGram` while combining or creating a new one. We recommend overwriting the existing one (default setting of merge_table) if the `NGram` table is expected to be very large in order to avoid memory issue.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 75,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 9.79 s, sys: 1 s, total: 10.8 s\\n\",\n      \"Wall time: 10.8 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# load a pre-trained n-gram from the pickle file\\n\",\n    \"n_gram = joblib.load('ngram_pubchem_ikebata_reO15_O10.xz')\\n\",\n    \"# with open('ngram_pubchem_ikebata_reO15_O10.obj', 'rb') as f:\\n\",\n    \"#     n_gram = pk.load(f)\\n\",\n    \"    \\n\",\n    \"# load a pre-trained n-gram from the pickle file\\n\",\n    \"n_gram2 = joblib.load('ngram_pubchem_ikebata_reO15_O11to20.xz')\\n\",\n    \"# with open('ngram_pubchem_ikebata_reO15_O11to20.obj', 'rb') as f:\\n\",\n    \"#     n_gram2 = pk.load(f)\\n\",\n    \"\\n\",\n    \"_ = n_gram.merge_table(n_gram2)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### iQSPR: sequential Monte Carlo\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"After the preparation of forward model (likelihood) and `NGram` model (prior), we are now ready to perform the actual iteration of iQSPR to generate molecules in our target property region.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### run iQSPR\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"We need to first set up some initial molecules as a starting point of our iQSPR iteration. Note that the number of molecules in this initial set governs the number of molecules generated in each iteration step. In practice, you may want at least 100 or even 1000 molecules per step depending your computing resources to avoid getting trapped in a local region when searching the whole molecular space defined by your N-gram model.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 76,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"['CC(Cc1ccccc1)NCCn1cnc2c1c(=O)n(C)c(=O)n2C' 'CN1CCN(C)C1=O' 'N#CO'\\n\",\n      \" 'COC1C(O)C(N)C(OC2OC(C(C)N)CCC2N)C(O)C1N(C)C(=O)CN' 'CCCCOP(N)(=O)OCCCC'\\n\",\n      \" 'NS(=O)(=O)Cl' 'CCSC(=O)N(CC)CC' 'CCCCCC=CCC=CCC=CCCCCC(=O)O'\\n\",\n      \" 'CCCCCC=CCC=CCC=CC=CC(O)CCCC(=O)O'\\n\",\n      \" 'CC1NCCc2c(C(=O)N3CCCCC3)[nH]c3cccc1c23' 'ClC1C=CC(Cl)C(Cl)C1Cl'\\n\",\n      \" 'CC1=CC(=O)CC1' 'CC1C(=O)NC(=O)N(C2CCCCC2)C1=O'\\n\",\n      \" 'O=[N+]([O-])c1cc2nc(C(F)(F)F)[nH]c2cc1Cl' 'O=C1C=C2NC(C(=O)O)C=C2CC1=O'\\n\",\n      \" 'CCSC(=O)N(CC)CC' 'CCCCCCCCOc1ccc(C(=O)c2ccccc2O)c(O)c1'\\n\",\n      \" 'COc1ccc2c(c1)CCC(c1ccccc1)C2(O)c1ccccn1'\\n\",\n      \" 'CCN(CCOC(=O)C(OC)(c1ccccc1)c1ccccc1)CC(C)C' 'COc1ccccc1NC(=O)CC(C)=O'\\n\",\n      \" 'CC1CC2C(=CC1=O)CCC1C2CCC2(C)C1CCC2(C)O' 'C1COCCN1' 'NCCNCCO'\\n\",\n      \" 'CCC(C)Cc1cccc(O)c1C' 'COC(F)(F)CCl']\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit WARNING: [23:16:50] WARNING: not removing hydrogen atom without neighbors\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# set up initial molecules for iQSPR\\n\",\n    \"np.random.seed(201906) # fix the random seed\\n\",\n    \"cans = [Chem.MolToSmiles(Chem.MolFromSmiles(smi)) for i, smi in enumerate(data_ss['SMILES'])\\n\",\n    \"       if (data_ss['HOMO-LUMO gap'].iloc[i] > 4)]\\n\",\n    \"init_samples = np.random.choice(cans, 25)\\n\",\n    \"print(init_samples)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"For any sequential Monte Carlo algorithm, annealing is usually recommended to avoid getting trapped in a local mode. In iQSPR, we use the beta vector to control our annealing schedule. We recommend starting with a small number close to 0 to minimize the influence from the likelihood at the beginning steps and using some kind of exponential-like schedule to increase the beta value to 1, which represents the state of the original likelihood. The length of the beta vector directly controls the number of iteration in iQSPR. We recommend adding more steps with beta=1 at the end to allow exploration of the posterior distribution (your target property region). In practice, iteration of the order of 100 or 1000 steps is recommended depending your computing resources.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 77,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Number of steps: 50\\n\",\n      \"[0.01       0.02       0.03       0.04       0.05       0.06\\n\",\n      \" 0.07       0.08       0.09       0.1        0.11       0.12\\n\",\n      \" 0.13       0.14       0.15       0.16       0.17       0.18\\n\",\n      \" 0.19       0.2        0.21       0.23111111 0.25222222 0.27333333\\n\",\n      \" 0.29444444 0.31555556 0.33666667 0.35777778 0.37888889 0.4\\n\",\n      \" 0.4        0.46666667 0.53333333 0.6        0.66666667 0.73333333\\n\",\n      \" 0.8        0.86666667 0.93333333 1.         1.         1.\\n\",\n      \" 1.         1.         1.         1.         1.         1.\\n\",\n      \" 1.         1.        ]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# set up annealing schedule in iQSPR\\n\",\n    \"beta = np.hstack([np.linspace(0.01,0.2,20),np.linspace(0.21,0.4,10),np.linspace(0.4,1,10),np.linspace(1,1,10)])\\n\",\n    \"print('Number of steps: %i' % len(beta))\\n\",\n    \"print(beta)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 2-3min to complete!</span>**\\n\",\n    \"\\n\",\n    \"Putting together the initial molecules, beta vector, forward model (likelihood), N-gram model (prior), you can now use a for-loop over the IQSPR class to get the generated molecules at each iteration step. More information can be extracted from the loop by setting \\\"yield_lpf\\\" to True (l: log-likelihood, p: probability of resampling, f: frequency of appearence). Note that the length of generated molecules in each step may not equal to the length of intial molecules because we only track the unique molecules and record their appearance frequency separately.\\n\",\n    \"\\n\",\n    \"We will use the previously trained `NGram` here. Please make sure you have loaded the `NGram` models and merged them property in the previous section. We will reset the parameters again to make sure the values are what we expected them to be. \\n\",\n    \"\\n\",\n    \"Note that warnings will be thrown out if there are molecules generated from the `NGram` that cannot be converted to RDKit's MOL format. \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 79,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# library for running iQSPR in XenonPy-iQSPR\\n\",\n    \"from xenonpy.inverse.iqspr import IQSPR\\n\",\n    \"\\n\",\n    \"# update NGram parameters for this exampleHOMO-LUMO gap\\n\",\n    \"n_gram.set_params(del_range=[1,20],max_len=500, reorder_prob=0.5, sample_order=(1,20))\\n\",\n    \"\\n\",\n    \"# set up likelihood and n-gram models in iQSPR\\n\",\n    \"iqspr_reorder = IQSPR(estimator=prd_mdls, modifier=n_gram)\\n\",\n    \"    \\n\",\n    \"np.random.seed(201906) # fix the random seed\\n\",\n    \"# main loop of iQSPR\\n\",\n    \"iqspr_samples1, iqspr_loglike1, iqspr_prob1, iqspr_freq1 = [], [], [], []\\n\",\n    \"for s, ll, p, freq in iqspr_reorder(init_samples, beta, yield_lpf=True):\\n\",\n    \"    iqspr_samples1.append(s)\\n\",\n    \"    iqspr_loglike1.append(ll)\\n\",\n    \"    iqspr_prob1.append(p)\\n\",\n    \"    iqspr_freq1.append(freq)\\n\",\n    \"# record all outputs\\n\",\n    \"iqspr_results_reorder = {\\n\",\n    \"    \\\"samples\\\": iqspr_samples1,\\n\",\n    \"    \\\"loglike\\\": iqspr_loglike1,\\n\",\n    \"    \\\"prob\\\": iqspr_prob1,\\n\",\n    \"    \\\"freq\\\": iqspr_freq1,\\n\",\n    \"    \\\"beta\\\": beta\\n\",\n    \"}\\n\",\n    \"# save results\\n\",\n    \"with open('iQSPR_results_reorder.obj', 'wb') as f:\\n\",\n    \"    pk.dump(iqspr_results_reorder, f)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### plot results\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Let us take a look at the results.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 46,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"with open('iQSPR_results_reorder.obj', 'rb') as f:\\n\",\n    \"    iqspr_results_reorder = pk.load(f)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"First, we look at how the likelihood values of the generated molecules converged to a distribution peaked around 1 (hitting the target property region). The gradient correlates well to the annealing schedule.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 48,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# plot the likelihood evolution\\n\",\n    \"\\n\",\n    \"# set up the min and max boundary for the plots\\n\",\n    \"tmp_list = [x.sum(axis = 1, skipna = True).values for x in iqspr_results_reorder[\\\"loglike\\\"]]\\n\",\n    \"flat_list = np.asarray([item for sublist in tmp_list for item in sublist])\\n\",\n    \"y_max, y_min = max(flat_list), min(flat_list)\\n\",\n    \"\\n\",\n    \"_ = plt.figure(figsize=(10,5))\\n\",\n    \"_ = plt.xlim(0,len(iqspr_results_reorder[\\\"loglike\\\"]))\\n\",\n    \"_ = plt.ylim(y_min,y_max)\\n\",\n    \"_ = plt.xlabel('Step')\\n\",\n    \"_ = plt.ylabel('Log-likelihood')\\n\",\n    \"for i, ll in enumerate(tmp_list):\\n\",\n    \"    _ = plt.scatter([i]*len(ll), ll ,s=10, c='b', alpha=0.2)\\n\",\n    \"_ = plt.show()\\n\",\n    \"#plt.savefig('iqspr_loglike_reorder.png',dpi = 500)\\n\",\n    \"#plt.close()\\n\",\n    \"\\n\",\n    \"y_max, y_min = np.exp(y_max), np.exp(y_min)\\n\",\n    \"_ = plt.figure(figsize=(10,5))\\n\",\n    \"_ = plt.xlim(0,len(iqspr_results_reorder[\\\"loglike\\\"]))\\n\",\n    \"_ = plt.ylim(y_min,y_max)\\n\",\n    \"_ = plt.xlabel('Step')\\n\",\n    \"_ = plt.ylabel('Likelihood')\\n\",\n    \"for i, ll in enumerate(tmp_list):\\n\",\n    \"    _ = plt.scatter([i]*len(ll), np.exp(ll) ,s=10, c='b', alpha=0.2)\\n\",\n    \"_ = plt.show()\\n\",\n    \"#plt.savefig('iqspr_like_reorder.png',dpi = 500)\\n\",\n    \"#plt.close()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 1-2min to complete!</span>**\\n\",\n    \"\\n\",\n    \"Next, we plot the evolution of the generated molecules in the target property space. Note that if your forward models are BayesRidge, you need to add return_std=True to the predict function.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 49,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Range of std. dev.: (25.5192,33.1820)\\n\",\n      \"CPU times: user 18.7 s, sys: 182 ms, total: 18.8 s\\n\",\n      \"Wall time: 19.9 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# re-calculate the property values for the proposed molecules\\n\",\n    \"x_mean, x_std, y_mean, y_std = [], [], [], []\\n\",\n    \"r_std = []\\n\",\n    \"FPs_samples = []\\n\",\n    \"for i, smis in enumerate(iqspr_results_reorder[\\\"samples\\\"]):\\n\",\n    \"    tmp_fps = RDKit_FPs.transform(smis)\\n\",\n    \"    FPs_samples.append(tmp_fps)\\n\",\n    \"    \\n\",\n    \"    tmp1, tmp2 = prd_mdls[\\\"E\\\"].predict(tmp_fps)\\n\",\n    \"    x_mean.append(tmp1)\\n\",\n    \"    x_std.append(tmp2)\\n\",\n    \"    \\n\",\n    \"    tmp1, tmp2 = prd_mdls[\\\"HOMO-LUMO gap\\\"].predict(tmp_fps)\\n\",\n    \"    y_mean.append(tmp1)\\n\",\n    \"    y_std.append(tmp2)\\n\",\n    \"    \\n\",\n    \"    r_std.append([np.sqrt(x_std[-1][i]**2 + y_std[-1][i]**2) for i in range(len(x_std[-1]))])\\n\",\n    \"\\n\",\n    \"# flatten the list for max/min calculation\\n\",\n    \"flat_list = [item for sublist in r_std for item in sublist]\\n\",\n    \"print('Range of std. dev.: (%.4f,%.4f)' % (min(flat_list),max(flat_list)))\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 1-2min to complete!</span>**\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 50,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 19.3 s, sys: 395 ms, total: 19.7 s\\n\",\n      \"Wall time: 19.7 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"import os\\n\",\n    \"\\n\",\n    \"# prepare a folder to save all the figures\\n\",\n    \"ini_dir = './iQSPR_tutorial_prd/'\\n\",\n    \"if not os.path.exists(ini_dir):\\n\",\n    \"    os.makedirs(ini_dir)\\n\",\n    \"\\n\",\n    \"flat_list = np.asarray([item for sublist in r_std for item in sublist])\\n\",\n    \"s_max, s_min = max(flat_list), min(flat_list)\\n\",\n    \"flat_list = np.concatenate((data_ss[\\\"E\\\"],\\n\",\n    \"    np.asarray([item for sublist in x_mean for item in sublist])))\\n\",\n    \"x_max, x_min = max(flat_list), min(flat_list)\\n\",\n    \"flat_list = np.concatenate((data_ss[\\\"HOMO-LUMO gap\\\"],\\n\",\n    \"    np.asarray([item for sublist in y_mean for item in sublist])))\\n\",\n    \"y_max, y_min = max(flat_list), min(flat_list)\\n\",\n    \"tmp_beta = iqspr_results_reorder[\\\"beta\\\"]\\n\",\n    \"\\n\",\n    \"for i in range(len(r_std)):\\n\",\n    \"    dot_size = 45*((np.asarray(r_std[i])-s_min)/(s_max-s_min)) + 5\\n\",\n    \"    \\n\",\n    \"    _ = plt.figure(figsize=(5,5))\\n\",\n    \"    rectangle = plt.Rectangle((0,0),200,3,fc='y',alpha=0.1)\\n\",\n    \"    _ = plt.gca().add_patch(rectangle)\\n\",\n    \"    _ = plt.scatter(data_ss[\\\"E\\\"], data_ss[\\\"HOMO-LUMO gap\\\"],s=3, c='b', alpha=0.2)\\n\",\n    \"    _ = plt.scatter(x_mean[i], y_mean[i],s=dot_size, c='r', alpha=0.5)\\n\",\n    \"    _ = plt.title('Step: %i (beta = %.3f)' % (i,tmp_beta[i]))\\n\",\n    \"    _ = plt.xlim(x_min,x_max)\\n\",\n    \"    _ = plt.ylim(y_min,y_max)\\n\",\n    \"    _ = plt.xlabel('Internal energy')\\n\",\n    \"    _ = plt.ylabel('HOMO-LUMO gap')\\n\",\n    \"    #plt.show()\\n\",\n    \"    _ = plt.savefig(ini_dir+'Step_%02i.png' % i,dpi = 500)\\n\",\n    \"    _ = plt.close()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 10-15min to complete!</span>**\\n\",\n    \"\\n\",\n    \"Finally, let us take a look at the generated molecular structures.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 51,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 4min 16s, sys: 7.13 s, total: 4min 23s\\n\",\n      \"Wall time: 4min 25s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"import os\\n\",\n    \"\\n\",\n    \"# prepare a folder to save all the figures\\n\",\n    \"ini_dir = './iQSPR_tutorial_smiles/'\\n\",\n    \"if not os.path.exists(ini_dir):\\n\",\n    \"    os.makedirs(ini_dir)\\n\",\n    \"\\n\",\n    \"tmp_list = [x.sum(axis = 1, skipna = True).values for x in iqspr_results_reorder[\\\"loglike\\\"]]    \\n\",\n    \"\\n\",\n    \"n_S = 25\\n\",\n    \"for i, smis in enumerate(iqspr_results_reorder['samples']):\\n\",\n    \"    tmp_smis = iqspr_results_reorder['samples'][i][\\n\",\n    \"        np.argsort(tmp_list[i])[::-1]]\\n\",\n    \"    fig, ax = plt.subplots(5, 5)\\n\",\n    \"    _ = fig.set_size_inches(20, 20)\\n\",\n    \"    _ = fig.set_tight_layout(True)\\n\",\n    \"    for j in range(n_S):\\n\",\n    \"        xaxis = j // 5\\n\",\n    \"        yaxis = j % 5\\n\",\n    \"        try:\\n\",\n    \"            img = Draw.MolToImage(Chem.MolFromSmiles(tmp_smis[j]))\\n\",\n    \"            _ = ax[xaxis, yaxis].clear()\\n\",\n    \"            _ = ax[xaxis, yaxis].set_frame_on(False)\\n\",\n    \"            _ = ax[xaxis, yaxis].imshow(img)\\n\",\n    \"        except:\\n\",\n    \"            pass\\n\",\n    \"        _ = ax[xaxis, yaxis].set_axis_off()\\n\",\n    \"    _ = fig.savefig(ini_dir+'Step_%02i.png' % i,dpi = 500)\\n\",\n    \"    _ = plt.close()\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"We can now compare our generated molecules with the 16 existing molecules in our data set that are in the target region. You can see that our generated molecules contain substructures that are similar to a few of the existing molecules.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 52,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"target_smis = [Chem.MolToSmiles(Chem.MolFromSmiles(smi)) for i, smi in enumerate(data_ss['SMILES'])\\n\",\n    \"       if ((data_ss['HOMO-LUMO gap'].iloc[i] <= 3) and (data_ss['E'].iloc[i] <= 200))]\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 53,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"['O=C1N=c2cc([N+](=O)[O-])c([N+](=O)[O-])cc2=NC1=O', 'O=C1C(O)=C(c2ccccc2)C(=O)C(O)=C1c1ccccc1', 'O=c1ccc2[n+]([O-])c3ccc(O)cc3oc-2c1', 'Nc1ccc2nc3ccccc3nc2c1N', 'Cc1cc(Cl)cc2c1C(=O)C(=C1Sc3cc(Cl)cc(C)c3C1=O)S2', 'Nc1ccc(N)c2c1C(=O)c1c(N)ccc(N)c1C2=O', 'COc1cc(N)c2c(c1N)C(=O)c1ccccc1C2=O', 'Nc1ccc(O)c2c1C(=O)c1ccccc1C2=O', 'CNc1ccc(N(CCO)CCO)cc1[N+](=O)[O-]', 'C1=Cc2c3ccccc3cc3c4c(cc1c23)=CCCC=4', 'O=C(CN1CCOCC1)NN=Cc1ccc([N+](=O)[O-])o1', 'CNc1ccc(O)c2c1C(=O)c1c(O)ccc(NC)c1C2=O', 'O=C1c2c(O)ccc(O)c2C(=O)c2c(O)ccc(O)c21', 'O=C1C=CC(=C2C=CC(=O)C=C2)C=C1', 'c1ccc2c(c1)ccc1c2ccc2ccc3ccccc3c21', 'NC1=NC(=O)C2=C(CNC3C=CC(O)C3O)C=NC2=N1']\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"print(target_smis)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 54,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 6.38 s, sys: 1.38 s, total: 7.75 s\\n\",\n      \"Wall time: 7.75 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"import os\\n\",\n    \"\\n\",\n    \"# prepare a folder to save all the figures\\n\",\n    \"ini_dir = './iQSPR_tutorial_target_smiles/'\\n\",\n    \"if not os.path.exists(ini_dir):\\n\",\n    \"    os.makedirs(ini_dir)\\n\",\n    \"\\n\",\n    \"n_S = 25\\n\",\n    \"\\n\",\n    \"fig, ax = plt.subplots(5, 5)\\n\",\n    \"_ = fig.set_size_inches(20, 20)\\n\",\n    \"_ = fig.set_tight_layout(True)\\n\",\n    \"for j in range(n_S):\\n\",\n    \"    xaxis = j // 5\\n\",\n    \"    yaxis = j % 5\\n\",\n    \"    try:\\n\",\n    \"        img = Draw.MolToImage(Chem.MolFromSmiles(target_smis[j]))\\n\",\n    \"        _ = ax[xaxis, yaxis].clear()\\n\",\n    \"        _ = ax[xaxis, yaxis].set_frame_on(False)\\n\",\n    \"        _ = ax[xaxis, yaxis].imshow(img)\\n\",\n    \"    except:\\n\",\n    \"        pass\\n\",\n    \"    _ = ax[xaxis, yaxis].set_axis_off()\\n\",\n    \"_ = fig.savefig(ini_dir+'target_region.png',dpi = 500)\\n\",\n    \"_ = plt.close()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### run iQSPR with different annealing schedules\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"In some cases, you may want to give priority to certain property reaching the target region. This can be done by adjusting the annealing schedule for each property. To do so, you can input a dictionary for beta, instead. Here, we try to reach a low value for internal energy first. Hence, the annealing schedule for HOMO-LUMO gap has a longer flat region.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 55,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"           E  HOMO-LUMO gap\\n\",\n      \"0   0.010000       0.005714\\n\",\n      \"1   0.020000       0.011429\\n\",\n      \"2   0.030000       0.017143\\n\",\n      \"3   0.040000       0.022857\\n\",\n      \"4   0.050000       0.028571\\n\",\n      \"5   0.060000       0.034286\\n\",\n      \"6   0.070000       0.040000\\n\",\n      \"7   0.080000       0.045714\\n\",\n      \"8   0.090000       0.051429\\n\",\n      \"9   0.100000       0.057143\\n\",\n      \"10  0.110000       0.062857\\n\",\n      \"11  0.120000       0.068571\\n\",\n      \"12  0.130000       0.074286\\n\",\n      \"13  0.140000       0.080000\\n\",\n      \"14  0.150000       0.085714\\n\",\n      \"15  0.160000       0.091429\\n\",\n      \"16  0.170000       0.097143\\n\",\n      \"17  0.180000       0.102857\\n\",\n      \"18  0.190000       0.108571\\n\",\n      \"19  0.200000       0.114286\\n\",\n      \"20  0.210000       0.120000\\n\",\n      \"21  0.231111       0.125714\\n\",\n      \"22  0.252222       0.131429\\n\",\n      \"23  0.273333       0.137143\\n\",\n      \"24  0.294444       0.142857\\n\",\n      \"25  0.315556       0.148571\\n\",\n      \"26  0.336667       0.154286\\n\",\n      \"27  0.357778       0.160000\\n\",\n      \"28  0.378889       0.165714\\n\",\n      \"29  0.400000       0.171429\\n\",\n      \"30  0.400000       0.177143\\n\",\n      \"31  0.466667       0.182857\\n\",\n      \"32  0.533333       0.188571\\n\",\n      \"33  0.600000       0.194286\\n\",\n      \"34  0.666667       0.200000\\n\",\n      \"35  0.733333       0.210000\\n\",\n      \"36  0.800000       0.257500\\n\",\n      \"37  0.866667       0.305000\\n\",\n      \"38  0.933333       0.352500\\n\",\n      \"39  1.000000       0.400000\\n\",\n      \"40  1.000000       0.400000\\n\",\n      \"41  1.000000       0.550000\\n\",\n      \"42  1.000000       0.700000\\n\",\n      \"43  1.000000       0.850000\\n\",\n      \"44  1.000000       1.000000\\n\",\n      \"45  1.000000       1.000000\\n\",\n      \"46  1.000000       1.000000\\n\",\n      \"47  1.000000       1.000000\\n\",\n      \"48  1.000000       1.000000\\n\",\n      \"49  1.000000       1.000000\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# set up annealing schedule in iQSPR\\n\",\n    \"beta1 = np.hstack([np.linspace(0.01,0.2,20),np.linspace(0.21,0.4,10),np.linspace(0.4,1,10),np.linspace(1,1,10)])\\n\",\n    \"beta2 = np.hstack([np.linspace(0.2/35,0.2,35),np.linspace(0.21,0.4,5),np.linspace(0.4,1,5),np.linspace(1,1,5)])\\n\",\n    \"beta = pd.DataFrame({'E': beta1, 'HOMO-LUMO gap': beta2})\\n\",\n    \"print(beta)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Let us try to re-run the IQSPR to see how the results may differ\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 80,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# library for running iQSPR in XenonPy-iQSPR\\n\",\n    \"from xenonpy.inverse.iqspr import IQSPR\\n\",\n    \"\\n\",\n    \"# update NGram parameters for this exampleHOMO-LUMO gap\\n\",\n    \"n_gram.set_params(del_range=[1,20],max_len=500, reorder_prob=0.5)\\n\",\n    \"\\n\",\n    \"# set up likelihood and n-gram models in iQSPR\\n\",\n    \"iqspr_reorder = IQSPR(estimator=prd_mdls, modifier=n_gram)\\n\",\n    \"    \\n\",\n    \"np.random.seed(201909) # fix the random seed\\n\",\n    \"# main loop of iQSPR\\n\",\n    \"iqspr_samples1, iqspr_loglike1, iqspr_prob1, iqspr_freq1 = [], [], [], []\\n\",\n    \"for s, ll, p, freq in iqspr_reorder(init_samples, beta, yield_lpf=True):\\n\",\n    \"    iqspr_samples1.append(s)\\n\",\n    \"    iqspr_loglike1.append(ll)\\n\",\n    \"    iqspr_prob1.append(p)\\n\",\n    \"    iqspr_freq1.append(freq)\\n\",\n    \"# record all outputs\\n\",\n    \"iqspr_results_reorder = {\\n\",\n    \"    \\\"samples\\\": iqspr_samples1,\\n\",\n    \"    \\\"loglike\\\": iqspr_loglike1,\\n\",\n    \"    \\\"prob\\\": iqspr_prob1,\\n\",\n    \"    \\\"freq\\\": iqspr_freq1,\\n\",\n    \"    \\\"beta\\\": beta\\n\",\n    \"}\\n\",\n    \"# save results\\n\",\n    \"with open('iQSPR_results_reorder2.obj', 'wb') as f:\\n\",\n    \"    pk.dump(iqspr_results_reorder, f)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### plot results\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Let us take a look at the results.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 57,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"with open('iQSPR_results_reorder2.obj', 'rb') as f:\\n\",\n    \"    iqspr_results_reorder = pk.load(f)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"First, we look at how the likelihood values of the generated molecules converged to a distribution peaked around 1 (hitting the target property region). The gradient correlates well to the annealing schedule.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 58,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"iVBORw0KGgoAAAANSUhEUgAAAmwAAAE/CAYAAAD7Z5/hAAAAOXRFWHRTb2Z0d2FyZQBNYXRwbG90bGliIHZlcnNpb24zLjMuMiwgaHR0cHM6Ly9tYXRwbG90bGliLm9yZy8vihELAAAACXBIWXMAAAsTAAALEwEAmpwYAABnLUlEQVR4nO3de5gkdX0v/nfduquv09MzPTO7s3eW5SrXVYJiFoxglmVFEi9wEjRyvKB5kIOJJxwT9WhUZA8eiUrUc2LkSYyi5vzEqKwKREQFRe4gyHLb2+zsTE9P37uqu26/P3qmYWWrumronumeeb+eh2fp2e/Ufru+3VWf+l4+X8FxHAdERERE1LPEpa4AEREREXljwEZERETU4xiwEREREfU4BmxEREREPY4BGxEREVGPY8BGRERE1OPkpa5Ap+TzVdg2M5T0o6GhOHK5ylJXgxaI7de/2HaAVjexb6oMEQJsOFg/mkAk7H5r1Oom9IYJNSR7lgtadiH8tF+Q9xek7GSuioefzkKWRJiWjdOOzWDVUMz1uI8/n4OuG1BVBSdvHPI8H/mSjh/dtw/lmoFEVMEfv2o9BpOq67F/8eghzJY0pJMRnHPKas/394tHDyFXrGFoIOpZNl/ScfsDB1DTDURVBeefuda1DvmSjv/vZ8+iUNWRiqn4k23HuJYFAFEUMDh49HPlZdkEbLbtMGDrY2y7/sb2656abqBWNxENy4iqSseP3+m263Z9O61ca6BUqUOWRZimjXIijLAiHbVsTTfw2+dzaFg2QpKIkzYOub7Hmm7gwT3TqOoGYqqCM7aMtD0fB6bKmCpUMZqKYe1owrNsTTdgCTVotYbnccOKhHQ8jHxFRzquIqxIrm1erjVwcLrcCjLTHueiWKnjoadn0GgYCIUUbFyVxOhg9Khl9x0u4ecPH4JpO5BFAYmIgi1rB13rfO/jh3D3QxNwAAgABqIK/vgPNh617G+ePIz/+MXzsGwbkigirIg455Rxl7JT+P4vnocNByIEhBUJ55yy+qhlH3hqCj9/aAKmY0MWRKTjIbzuzHVHLXvbvc/hl48dhiACjg2oIQGXnX+C6/tbqGUTsBERLTc13cAzE0WIggDbcbB5fGBJgiC/QVhNN/DAniw0rYFIJIQzt2Ta1nfP/jwmcmWMDyWwZZ37TRwAHn0mi33TJawfSeKUzZnOHNcBHnkmh2pNRyyqYsNY0rVorqRjcraGWFhBrq5jbCjm+v4OZit49NkcZFGEadsYGYx6BikHpsrY/et9c209g+1nrXcN2mq6gcefn0UkGoJWa+DkjWnPwPG5yRJM00K+3EBUdW/D2aKOnz8yAcN0oMgC1gzHMTwQca3vgekyBAAOdByYKru+v4PTFRzMVlq9cQenK57nYs+BPDTDOeK1W8D26DNZlDVz7pWNR5/JugZsTzw/g1KrbPO1W8D2zMEiyro198rCMweLeN2ZR6/v/qky7OY/33rdDQzYiIh6VK1uQhQExKMKKrW5oGmRA7YgQePBbAVP7p1FJCRDm6pgdDDifWPen8d3f/4cREHAfU4Wl7x2k2tw9egzWXznrmchCMB9T2QBwDVoC3Lc5yaLeP5QEaIoYLpQx3OTRQynjh6kAEDDsODYgGFZrmUAoFhtYLZchywAptN87WWq0JzWk4wrKFQamCpUXQO2XEnH/qkSUskoCqUaVg1FXdtkvqwiSTAsy7Psc4cKKNdMhBUJ5ZqJ5w4VXM/bZK4K23IQUkQ0DBuTuarre2uYFizLhiA4sCwHDdP73AmC4Pn6yHponq9frFipe75+sdmS7vn6xUzL8XzdKVx0QETUo6JhGbbjoFIzYDsOol2YB9VOrW6iYVgwbRsNw0KtbrqWrRsWtLqJfEWHVjdRN7xvzBO5MhzHwUA8BMdxMJFz75nYN12aOwcKbMfBvulS++PGlLbHzZd0iJKAwaQKURKQ97gxR0IyDNNBoaLDMB1EQh7t4TgoVRrIlXSUKg2gzS6QyUgYE9kKHnxqGhPZCpKRsGtZrW7iyX15/OzB/XhyXx6aR5todRN7DhRw/1OHsedAwbOsIACO48C0HTiOA484CYlo89zqDQuO4yARdX+QiEUU2LYNXTdh2zZiEe+HjtjvBZS///rFJNHxfP1isiR4vn4xNSx6vj7S7/+b3QnY2MNGRNSjoqqCzeMDvueEBZk/dmCqjD2TJUREwXu+lAM8sXe2Nfnaa8jQsR1M5Wqw4ECCAKfN/LihRAT5Uh3ZggZZFDGUcO/ZSsVU5Es6ZgoaJFFAKuY+qXsoEUGlZqCsGRAceB5346oB3PfUNErVOhRFxMZVA65ltYYJQQBCigRBaL52U641YNo2JFGAadso17x72KYLGiqaAQeAoRmYLmiuvVtP7s3hwFQFogjYdvO1W0/mswcL2D9VhSA4cJwGnj1YcC27aigOWZZgWRZkWcKqobhrfVcPxxGPhWCazbKrh93LCgBUVYEkCLAcBx5xYLO8IEAS5wNI7x6207aMYH92/xGv3WwaT+HJ/aW5YzZfuzluXRpP7C3CtgFRbL72Kvv8ZA1z48OeZV8OBmxERMtAkKHL+flSsUgIVa3hOV/qUK6CiZkqJEFAvtLAoVzFdciwrDWgqjJCsoiGaaOseQcpEABREuBYDkRJgNedvGHakAQBjuBAEgQ0TNu17GBSxWg6ikJFQyoe8Vyxt2YkjhPWDmIyV8aqoQTWjLgHHlrdxGypDkUWYJiOZ28VBEANyQjJAhqm4/neAGB6tgJJEpGIKijXDEzPuq/+nJypwHEASRRgWQ4mZ9zLTs1WIMCGIskwTBNTHseNqDI2rx5A3TAQVhREVPcQQQ3LWJWOwXKa7aF69P6GQxIG42GEQxLqDQvh0NEXMswbG4oirIgQBRG2Y2Ns6OiLGQDgnFPGkSvWcXi2jLF0wnX+GgCcsH4Iv35iGnrDgBpScML6IdeyJ28axvOTZZSrDSRiIZy8adi17IVnb0SxauDAdBFrRwZw4dlHn2/3cjFg89Bvq52IyFu/fadruoF7f3sYhUodqXgYZ5805j65vG7i0EwFZa2BRCSE1cPuE+KnClWUawYs20FNNz3nS5VrBgQAUVVGRTNQrhmu9Q3JErSGhXrDhA0BIdn7xrxvsoRStQFBcFA3bOybLOGUY44+L20mX0N9LkizbBsz+ZrrcQ/nqpiarUGUBEzN1nA4V8XakaO/v4PZCrJFDWo4hGxRw8Gs+4R4AUDdMFGrO5BEwTMGWzOcQFiRYJgmwoqMNcPeqz7XjCRhP3YYhVIdgth87SYZV2E5gNZwWq/dDCajaJhA3TQhzL1249jATFGDAwcCTDjuMTHCstSczwcHFgSEPdp649gA1o8VUTcshBUJG8fcezEB4JXHj2H/dAWlUh3JZBivPH7MtWw0LOOVJ4xCFMbaThsQRODUY4ehyBIM04LgMco5lFSx9fjRVg/ikEfQH1UVXPb6LV2/tjBgc9Erq7OIqDOCfqeDBHdBA0G/6RuenSjg7ocPwbQsyJKEkZSKV7gENIeyFdzxwAEYhgVFkbB6KOa6wk/TLTx/qAhHAAQHeNUJ7sNImYEICuU6Ds1UEA0ryLgcE2j2pMhiszcsJEtte1LylTrqDXsuHYKDvMck8Lph4cWdal7z48pac86fhGZblzX3ILNYrSNb0CHMhSnFqnsdtIaJUtWAZVmQJMlzSDSiylg9FEFFMxCPePdWAcCq4Rg2rk6iWNUxEFOxatg9T9fYUAyJiAzTtiCLEsZc8p8BQEgRIUmAbQGi1Hztpm5aEAUBlm1DFEXUPRYHCCIwlo7CdmyIgugZ/AynIjhzy0hr1a7Xoo758n/6h5uRr+gYjKue5YNMGxiMq5BEAYZpQRIFDHoEulFVwckb076/11FV6XqMwIDNRS+sziKizgnynQ4S3AUNBIOkb9hzoICZQg2KIsEw6thzoOAasD3yTBalmgFFFKEZBh55Juu6inI631zRF1YkNBpW6/XRPHuogHy5DhtAvVHHsx4rB5vBjIOQJMKyHJSq7oES0OyRk2VAFABbhGePnCgCiozWPCjRI0CIRxSIggDHRrPNPSa56w0LpUodgiDCcWzoDfcgpVQ1YJjW3JCv5fn+CmUd+UoDYVlCvtJAoay79vI1y9dR0y3EVRU13UKhXHct78wtCggpMizT9pwrOFPQIKAZTJuWhZmC+yrKQqWObEmDIokwrAYKHgG0Yzfn3c1/7r1642YKGp7cn4ckCHiymkc66R2EAc2grV2ZeX6DpagqYzQda6WdibYJohcjCAuCAZuLXlidRdQJ/TYM2C1BvtOBgruAD3dThSpEQcDIYATTec1zOBJwIMkiFFmE7TjwWn1mWg5EB5BEEZZle6YWUGQJkiQiHJJhWQ4Uj0Bp76EiIALxkIJaw2i+diGgmcVdUSQ4htV2cvkx4wN4+OncXN+WgGPG3YfKNowN4MGnZ4947WbVUAzHrBmAVjcRCcuuGfiBZkA3mFQRCTWHc0WPCe5qSEQ8orTmYqkhj6hRAJKRECKqBE232s5hg+AgGQshGpabK3EF9/ZTwxKGB1TEoiFUaw2oYff2G4iHoCgSZFGAIEoYiIdcy4qCgIFYCIoowLAdz3MhiMCGsWQrrYdXD1u+okMSBKQHVMwWdeQruu9gzA/feQLrJgbjYawdifdlRwyjEBdBV2d1S7eGZXgTXxk4tP+CIN/pIMHd/A22VK1DlqW2D3ejqRhsZwbTeQ2242A05R5MvGJTBo8/PwvDdBCPyHjFJvdksWceN4In9xVgmCaSsTDOPM59mPP0Y0fwxL48GoaFgVgUpx/rXnb96gE8+lwedcOECAHrV7sHSpnBCEbT0VaG+syg9035pI1DmCnqmClqGB6I4KSN7pPAzzhuBLlSHdPFKkYGYjjD4/1FQjIS0RBiqgxRFD3Tb6wbSSAaVtAwTETDCtZ59IJtGBvA+rESdMOCqkjeQWM6juFBFbblIBZRsCrtvphhvnwqHkbDMJGKhz3LrxtJYjgVQUiREQlJWOcx3+30Y0fx1P5CK3g9/dhR17KZgQhkUYQNB7Ioeg5/D8ZVqGEJkiA0t1rymkcXV2E5DmaLOizH8SwbVJBrXL93xPRXbRfZUneHdmtYZiXcxLsZvPZTsMuh/SP5HzoJ9sAmwGnOB/ORf2ntaALbz1rvaw7blnWDuOyPjvOVsf+UzRn8OeBrJ4ChgeaE6vkVfkMD7jfQc09bg5m8hoPZEtZkkjj3tDWuZddk4jjt2ExryGlNxjtIiaoKtp027i+IVhWc/8q1/tpEaPb+zK/m9OrdioRlDA2EUdNFRFXFc4/L4VQE529d62tu1XAqgrNOGGu1c7sepagqY+1IrLWVlddw3drRBHa+eiM022mblmXtaAIXn3NM6zPkVTY9oOKsE0dRN5oLJdIen4vhVASvOXmV73Pht2xQQa5xvdIRs1AM2HpYt4Zl5hNhzu+dt9xu4t0MXnsl2PUbNAZ9ouynYLTb/AZ3ze+TA9tx0LCdjn+ftqwbbLtl07zNa1JYnYm3b+e6ibHBKNauTuHAoULbOm8aH8DoUNQzgSnQPGdnbskE+gwFeTD2HXCHZYQUEaIgQFC8P/f5io50QsXmNSlfw3V+51bVdAP5Sh2qoiBfqWNoQG07XJeKq1gzkvD1cLV2NIFMJoFs1nsbpJpuQDcsZAZi0A2rlU/vaKJhGfFoCKop+eotDjLPLEjZIIL2cC91R8zLwYCthwUdlvF9Y3bQyqtkOY5nIsx+1M35R73QYxVoCEBVsHoo1nqy7XQwWtMNTM/WoHncBF5ctp+CQb/11XQTv92ba523daNxwCNrQZBFB0HqEWQfz/nrRanaaHu9yJV0zJbqiKoKZkt15Ep6256wpW7foCsHgwzXBZkvFeRa0a3huqD1CNJb3E1Brhe9UuduY8DWwwLNuQnS1SsA48NxX8MF/ahrge5cea1uoFirIySJS7pVkJ8e0ppu4PnJIhqWjUK57rnxc+DgNeAG1L3QM+nX/Hubz8Hk9d50w8TwgIp4NIRKrQHd8EimimCLDrq1j+d8IO/IzfQfbdtiPqetj2tFrwTmfgPH4VQEZxyb8TV02c35Ut0argu62EYQBMRUZUlHXwKNktRNRMIKMgGuW0F2A/EzdSHocReKAVuP69Zwge04qGqmry7kbgrSQ+P3yxOkV2khF0kHAgSn+Wc7XZlL5wB7D5dg2c3knV49pLmSjgPTZUhSc7uZMY+bc9AbTK6k43CuilFBxFSu6rmp9EKCwaVcbJMr6Xh2ogjMTZ/3em+DcRW200zjIIpi2x6a0VQMDTOLA9NlCILoueggSHBeNyzYtgMHDmzb8cxTVtMNPLk/D1EWYZs2zvQI5IeSKlalo2hYNpIxxTOBaL8F5kCwoctuz5fqRu9koHr0yOhLkM99oIB0AbuB+OkJX6zPPQO2ZaSbXcgzBc33hFG/ZYP00AT98hzKNXsxDuWqnr1KQc2f3/hgZMlyeWkNExCAiCKjYVueyTu1uomZYr3Z69IwPbfSWdATvvB7f7odu0sX1W6VLZSbgW5YllA3LRTKg645saKqjLF0xNdkcaA54X98OIqpfA2jg1HPCf9wgKcPFl+0KtH9BpqKhdGwbFSLza2TUjH3zcMPZit47NkcErEwytV62964kzYOdWUYEFj6HrlAQdgCes2CvKdunQvf9eiV0ZcAgWOQ61aQtg7UE75IU2UYsPW4IPNX/A7hBO32nilo+OXjk60vz2tOXuUaiAUpmyvp2D9VRioZQaGkefZiTBWqaBgWYhEFuua9lU6tbqJcNVoZuNsFVX63/gGaF+zD+RrK+3UkEio2rXa/kNTqJg5lK6joDcRV762CanUTMwWttTrLqywAGAZgwADgkfwIzRVwiagCOEAi6r0CDgh2g5nveVFVGavS0bZbt/ieS1c30TDs1k2j/QIa/2V9n2NBQHhug++wIjV3ivaorxpqTtb28306mK3gUK4GWRJwKFfz3AopX9YxU2huwVSZe+36ECQAmZQKwQYcEZ4321K1jorWQDgko6I1UPLI7g8E770PsshlqXvkAk2h6NKwJdA758LvYo2uChg4duPzGST9zmKlC2HA1sOCfIGbwU+l9QH3Cn6CdnsHSXqYr+iwLAeRqIxKzfAsq9dNZPM11BoWqtU6dI/en5AkYSqvQShocJzmazdBJoE/O1HAA09NIyxLeHai6Ln1DwDkijqe2JuDaTqQc1Uctyblep4PZSv42cOHYDvNBJSrh923Cpot6vj5o5MwTBOKLGNNJu5attnrUkClqiMeU3HOK9z32YuEZGQLNeQKGoZSEc98VECwntSoqmAsHYNmO0hFvAPMmm7guckSTNNCvtzw7vV0gL2Hi7DnNgTfMOYxd8QBntg72+rd8io7W9Tx6yemWklavc5xWJZQ0004jgNB8N4nMej3qVito1RtIBFRUNYMz62QCtU69LqFaERGTTNRaBNYxcLNG1dN995hIBkLQw3JsGwHakhG0qM3DgiwKjlgQNPNnokgdfb7MAE0rwHzUzM6OgcqwIPm/PvzO53Er24GpIHq0aXAMcj7C5J+Z7HOGwO2HhZkHF+vm8iXNaiKDN0wPYOfoE8vQVZRqYqMmaKG2ZIO23GgKu4fsWbedgECBDhtBmcjqoxNqwdg2xZEUfLcl083zGZ277kNfr0mgZdqDQiOgGhERqNko1RreNQC2D9dQl23kUqGUCg1sH+65PpF3ne4CMOyWjfQfYeLrrmxnpssolyrIxySUa7V8dxk0TWVw4N7pnA4V4UoCqjoVTy4Z8q1Do88m8UzEyUIEJCvlvDIs1n80Znrjlp2pqDhrocnYM/tI3juaeOeQdtMQcOvnzyMcFhBvW4gEpY9e1P9zgnTGiY03YJhW1BE7/0aJ3MVTGQrkEQBhXIdk7mKax2yRQ2CACQiYVS0BrJFDVvgssm3CKwdiUMQAMeBZxZ3CEAioqBumIgqStvv00AsDEkSUKw1oMgiBjyCpVQsjHhMgSSIiMe8hzmHkirGhmIwTQvJWMizxzOdUJFJRSDKAhIRGelE5+alBZp326W0M4FGHAJMoTgwVcb379kLx7EhCCJ2vnqD63cv6GrgIA+a820ymDKRL1Q72hvXjXl0C6lDtwKgIO9v7ah33rqFHnehGLAtgSCTy/0+uathGYMJFYosImLKUNusjHQcGxXd9rXSMUjSw4gq46QN6VavkldgFQnLGEmrSCWiiIQFz+E6VZFhzG1MbJiWZyCoKjKKlUbrwudVdt1IEo9Ec83h1qjsmTEcAJLREEzHRr5Uh+U4SEbdt3mJRcKAIzQnfztC87Ubx4EgiJBFEQ1BbEYJLvIlHRAchBUZWsNovnYxOVMBHCAWkVHRjOZrt7KzVUzOVFtbzUzOVj3benK2gmxBx1BKRK6gY3LWPVgKMiesUK7jUK6KsCKhbuieeyqWag0IAhCNKKjUGp4BdyKqoG7a0ApViJLUHCp2oSoySrUGbNuBKAqenyFNN/HAU1OtTPLHrkl5pvXA3AIFvWFBDUleu01hPBPHlrWDKFZ0DMRVjHskoo2qCjatSvrrKRKAdaNxRGMqalXdM8jsZi9YoPlHAUccDueqzYelot6xBTH7p8soVuuIRxRUanXsny673tCDbUEWbLXx/MO8adloGNayy6UJ9Ebg2GsYsC2ymm7gt8/n0LCawdJJG4c85tH47wkbSqpYN5poPVF6PV0DwVY6Av6THs53Zc+/P69gcCipYmwwBkgSxuSYZ50jqox1I/HWfDDPQFCVsW40jrLWQCLiXXbtaAKvP3OtryzgALBqKI7x4Xgr+eSqIfcb6LFrUsgMTjWH6xJK80bu4qSNw3jk2RyqmoHhgTBO2jjsWvaYNYP4zVMz0BpGc//FNe5JVdePDeBXT2RRrDYgCALWe2ylo9dNTM5Um58zB969tADgCMiVdJRrBhpmMyh1NTesKIjN4UavOWEQmp/KWr0BWZQ891TMDERRNyxUc1XIsojMQNS1rKrIME0L9YaJcAieQViz1ywE07bm6uBedM/BAiZnNUiCiELVwJ6DBc/P0XOTBVTrJhRRRLVu4rlJ983UASARDSESaiYy9RJosY0DzBR1JC2gVNFxnEfQ2Cvb+QRO+O0zFUmQ96fIImq6CdO00TBtKLJ712uQOVBAwNXGcw/zZd1CqaIvu1yadHTLJmDT6mZzcrCHoCtwgsznCZIu4Hf7C63Aql2ahYlsGdlCDZlUFCducL+oR1UFq9LRufF2j/lraF748kUdJb2OpBr29XT26DNZX1veAMAzBwuYmCljfDjhuTcgADy1P4/D+RrGBqM4Y4v7cTXdxAN7sqjWGohFQ83jusQemm7iwT1ZVGoG4lEFJ21wL1vTDfzqt4cxMVPC+HAVa0bibW8CFa2OyZkKVg3HvW8GApBOhhGSRcSj3kNlkbCMVFyFCAfJuOrZ27hhVRKb1ySQL9UxmAxjwyr3i/WGVUlsXj2AfEXDYDziWbZuWDAdG7CbdfdKCwGgmT7CcmAIFmyrmU7CTViWUKjqsEwHkuw9J0zTLRyerTaHIoXma1cCEFdlNEwbIVn0PMcHZyqwbSCmhtEwLRycqbgGSnrdREUzIMsC9LrhGbwWyxrqDQuSaMOyHRTLmnslABgNG4bpwBFtmLYDo2G7lq3VTRiGDdtx4Bhtcu4FCWgEYDipIhZXEWqzQCGqKhiMh33P2wpyrWgu+plEsVLHQDyMs09a1WZuY7k1ZO8VpAwlVaQTKiq6gXRC7diCmFVDMawbiaGsGRiLKJ6byq8dTeCE9YN49lAex6webPswGGi18dzD/FA6htysvOxyafaKpV7B/PuWTcC2b6qMNV6r8ALOwwiy2jHIsSdzVew5UEBIFtEwbRy3LuU63PPMwQJ+9cQ0bMvGs4cq2LjK/QI4U9Dw4NNZSIKAiWzNcz7RoWwFv3h8sjU/Z9Vw1H2CO5oX4O/c9SwEAbjviSwAuNbjnt9O4t4npiGLAvZPa8iko3i9y5yp23+zH79+YgqSKGDfZBnDAyoufu0xRy370J5p7J8uAw6Qq9Tx0J5p1wvgQ3umcHCqAlFqzmt6yGOO1+2/2YdfPj4JURCw93AVA3EFF792s+u5+OmDB3D/UzkIACZydWRSB/CW87Yctexkror9U1WEZBGz5QYmc1XXtn7+cBEzBQ2S2GzL5w8X3Rd2lHVUNRshRUZVs5Ev6x7DizoaloV0IjI3FOletm5YMBr2fAdb24CtYVgIKWIrNUTDo3yxVockSVBDAgzLQbHmPnk+X9YRCslQZRG62Xx/rset1qE1LMiSCK1heU7gh+OgYVoQBMz1CLoHmA4w17MnAIJXKAqIkgjDtGG86LWXwaQKRRQBOFBEEYMewUSgXRSCLH5wgJmSjobdvoctyLXl0Wey+OZ/Pg3bdnCPOAXA/VoBAM9MFHD/77JQFQlPHywhk4rgFJdFP825jM2pAIblnc4GAEKKhKSAjvdMaoYFQGj+6XHe9uzP457HD0MUBEzNHsboYNSzJzXI1lTzIxmyJCKkLE0Cb6C7ezYvtV5Ytfv7vK8sfcSYG8d38+J5CqIgeJYFjlwZKQkC8hX3m0aQYxumDTUkIqbKUEPNC72bZybyMC0bA4kwTMvGMxP5jtQ3V9YQU2WsGY4hpsrItekR2DddgiAAo4NRCELztZvD2QoEAPFoCMLcazfPTxSaKz7DMhyn+drN3sNFmCYAATDN5ms3syUNgth8YhXE5ms3+6dKENB8yhbmXnt5/lABIoB4RII499qNYdqIqjJSiTCiquzZ1uVqA4VqHRW9uRKwXHWfi1WuNlrpLJoryzwWSghAMhJCKhFCMhJq8yQuAJIASRYBSUC7x/ZkLPyS/7yOHZJFxCOhZk+Yx7GjEQWmZaNu2jAtG9GI+0XScQC90fzu6w3LKwbDmpEExgabvc9jg1GscQlcgWaPZzwSgig26+zV4xkJyYhGZURC4tyf3jfPgUQIq4ajyAyqWDUcxUDCfR6kbpjNYTfBgSKL3rsozA3jSlLzz3a9v8PJCAaTKoaTEc+yQa4tT+7LoVprDtVXawae3JfzqARQrhmtOYiC0HztJaRIiEcUhNqNpswFBvP7qra7NzQMG5Ztt75TbgrVOhRJxFAyDEUSPVftTuTKEAUBo+kIREHARM57z8+FpBdZMxJf0v2Mf/t8Dk8dyOO3z+c8VybPBz+HczU8M1Fsu4q5FwSNGRbDsgnYDudrnk87QedhBFkZGeTYmYEIREGEblgQBREZj56tkcEYHMdGvlyH49gYGXTvfh+Mq9ANCweny9ANy7O+40MJCIKAYtWAIAgYH/Luql8/koTjAFP5Ghyn+drNlnVpKJKAmm5AkQRsWZd2LbtxfKDZ21E3IQjN124yg1GIIuBYgCg2X7s5cWMGiixBb1hQZAknbnR/wj9hwzAcAOVaA87cay9b1qWb5TULztxrN+tGEhiIhSEKzZWB6zwChGQshFQ8jHg0jFQ8jGTM/SbeXF3rzP2/d+/PqnS8GRA4c4FC2n3O3UBMwUCkORQzEFEwEPO+CazJxLFxVQJRVcbGVQms8ZgQv3EsibF0DKIoYCwdw0aP3p8NY0lsWZNCJqViy5qUZ09RJNwcRhofjmEsHfEMrNIJFaszMYwPRbE6E/NcGQmn+ZnQdAPlWsP72qIqsE0HjiDANp22N8+wLMO0HDi2ANNyEJa9FzQ8d6iE/VMVPHeoBE33SJKsm3hmooCJbA3PTBQ8yzZ72DTkSzpmSprn+wu0SjykwLIc1OoGLMuBGvI+F+tGEohHQmgYJuKRkOd3pDnMGYZpW0gnwt7DnAH3Vt57uIin9uWbD4Ie5yKsSJBEEaIgQhJFz2k440MJmJaNg9kKTMtue52dD8LGhqK+grCoqmAk7T39ZSFquoGZotY2qMqVdEzO1qDrFiZna8h5LH7qxeCnnV6Zu/liS1+DOd/97nfx2c9+FkNDzTlP5557Lq655hrfvz82GGs7DyPIMuEgKyODHDs9oOKsk0ahN5rJNtMeWc6PX5fGlrWzraSux3sEB0HmP2xZN4hLXrupNdHeq5seeGFIw8+8lFed2MwJ9vzhAjaOpVqvj+b8V65HsWJguqRhJBnB+a9c71r2zC2jePjpHGr1BqLhEM7cMupa9uRNQ3jNK1ZhaqaM0eEETt7kPo/utM0ZPPpMDrOlGtLJKE5rM+fmnFeM46n9BWSLNWQGojjnFeOuZdeOJrDz1Rt85fHZMDaATatLL8po7x68JmMhRMMyBAAKRM/gLqrKWDuSQEU3EG/zuUhGw5AUCY5lQ5BEJKPtcnOZKFTqECUJhYqBmu61TY+MjauTrY3JveoRCclIJ1Wk4s0eLq8eq1XpGMaGYq1tulalPSZ2C8CxawZ9LeLRDRNj6WhzNaBmePZsRdRme4mSA9sSEFG9e38EEThmdRIhRULDsDxThjQsC6PpKGKqjKpuomG5DzsH2tNUAMaHYxhKx5Gb9V5UEeRaeOKGNJ7an29d307c4H7NAoJ9R4BmwCSIAkJthp2DXJObQ6sCwmEJhml7DrWuycRxwoZ063Ps9ZCyZiSO044dQq6oYWgggjUj7mV7ReBhQGcuvm2zYU4vBT/dyim4GHomYHv88cdx7bXX4qKLLlrQ7ys+xvGDLhP2uzIyyLGjYRnDA5HWF8KzzgJwxpZRXzeYIPMfgGbQ1i5Qe7FTNmfaTiCe96oTxzwDtXlRVcGbz9uMSEyFVtXbTvZfNRSDZUUgSd6Ty2t1EyesT+OVJ4y2PRf5io4ta1NID4y1TQo8X/6kDUNID4z7Kh8JyxiIhdvuMDCciuCkDYOtoNjrmIMJFRvGkjDMZg/ioFcOrbqJVDyMNSPxtudCEIGNo4nmtmUQvHOPoZkGpFCpYygVQ6FS90wDUqubECEgoioQIbSdEL8qHWslEG0XTJx1wpivjbuD7KE7GFchSc30JpLkvWJvNBVDPCq3vtN+VgOqYRmSIEAUhbbHDskiLMtBSPbed7RV54bVts7NOVDS3Byo9vsJR1UZENS25cYzcbz6FatbDwheaUjmDQ2oiKhy+xxs9WCbfAdJcCvOrUQWPVYkA81r1plbMr63QVo7ksQJG4Z875+71HOmgixcGUqqSCfDqOoG0sk2PZ4BkxN3SzdzCi6GngnYHnvsMezduxdf+cpXcNxxx+EjH/kIBga8khkdaf1oou0q0V4QJGoPku25208wSz25tG5YCCsSoskwaprpOSE+yLkIMtwTtHyQhSsHpsr41RNTEAUBkzMaBhOqa29DJCQjEpYRVsS2PVDz83dK1XrbIEVVZMyWdZimDVkWvdNeAHAcB/lyA/VG88LueEwgCzp5fqaktc7bcU7K9bhBNu4GmgslmsGE51sL1KsUJCN6N4+9kFGBSEzFUKxz+c+iqoIzfAY088f2m+A2yPc6SILbSEiG7QgwG2bb79P8e/T7cB4oKXAP7PoQdNeOkNJ8UOnowo4uWqw9P7ulZwK2TCaDK664AmeccQb+9//+3/jEJz6Bz372s75/f83qVPcqt4SGhhOoaQaiEQVxj8nXQcsGUdEM/G6iBMOwoCgSTj8u4Xr8imZg30wNoiCgahg4fthH2aoJ23E8y240bNz3uywaloNQWMbGtWlkMh7zXXyei0wmgfRQvDVsMZp2nxsXtHy20kAyriIzGEU2X4MjS6513jNZQiwSwthwHIdnKtBsx7WsI0k4ZcsoFLm5aGVoKI6MSz0qmoFkTmu13ZDHOZ4u16GGFSDcXCcajoY8z/FYuY7hVKQ1aXxsJOlaPltpYN3qFJLREEq1BtRY2PP9bVwz2Brm9Hp/07M1DKZMJGMhlKoNRGKqa9nnDxVRtx0MJqOo6A3Yknt7APD8u5dTtpvHjsRVDPm8BkzN1jAz9zl2O2dA8xyrUR2KJMKwbM9zHNTeQ0WUdQvxuW26nDZt4vd7/di+WRiWjfRABLNFDQXdwBken7ctG4ZaSZK9Pm9A8zvVjWtyJK6iajQTjieSMtaOD/q6jrf7fAS5Js9/9/yci+nZGlaNJH1996Zna1Ajeuua1cnPUBALPce9YtEDtt27d+O666474mebNm3CzTff3Hr9rne9C+eff36g4+ZyFdh2m4H0PiUA0CoWNI/VWQsp69eB6TL27J1BLKygWjcQUwTX1BAzRQ3lktZ6gjkwkXdNGTJfdu3qFA4cKniW1Wt1HL9moLWDgl6rI5v1XnXl91yIADLxEGBZbY8ZpLxgWsgVasjOViCKIgTTvXxEFFDVGnj+YB624yAiCq5lNd2ArtXRmOvx0Ko6si5zm2aKGsy6gYSP9pjKliHAwUAshGK1jqlsGSMJ93lsda2B4WQIyUQUpXINda3hWmfBtFDXG5itG7Acx/Nc5Aoa9uzNtfJtrU6pEFzen6YbODxdxP65RM1DMdn1XOTzVeQLGipyHYZpI5+vIq4sm3VXgXrC5nt/k3EVpYru2fubK2h48tlsq9clHZFd2yOo2XwV1ZoOWBaqdQOz+SpibdrEz/faMS3odROz+Rp0w4LT5vP2/MF86/15fd4WMmwZ5JqciStzPWEKtIre9ncymUTba1aQa3KQc6HpBvKFKorFGmzH8fzu5QoannzuRZ+haOc+Q0EFPcfdMB8MB7XoAdv27duxffv2I35WLpdx88034y/+4i8ANIdaJI/NvWkJdGFy6XzZUrXhq2wiFvI3969HBFkIsnY0gXNPG/e140LQYXW/7bEqHcNgQoVt2xhMqN4T+NGcw7J2JAE1EsZAxHt3jSDDdUHzbdUNq3WOvURCMmq62SrbbuirV/jePzPAcM98qo7MYBTVat17LmbAvYeDGEqqWJWOomHZSMaUtju0+LV5PIWtx2uthLybx1PuhecWYMzP21qqbbqC8rv5e6Ch2QDnItCkfAEYHlBbveZLmei31+alBdETV6xoNIp/+qd/wumnn45TTz0VX//61wP3sHXDUs/b6hVBNpUOFEwEmEcTdMVOL7RHkIUgNd2AbljIDMSgG1Zr6ys3vufRBDhvw6kIzj1t3PfuHlFVwUkbh/wtGkGwRTwhRZrr0fUulyvpmC3XEQsrmC3XkSu51yNf1lHVG5AEEVW9gXzZe8FILwg0f2wBczez+ZqvtEV+59IGNf8Z6vR3NaoqOPukVQHmCksQBQGiIizZXOEgbR1k8/fg86b9nYv5Y/tqs7mt0F6Yl9r+V+ileiJgkyQJN954I/7n//yf0HUdGzZswK5duwIdw8/WVEEE/fL4nTjbj6KqgpM3pn1fVIM8wURVBZl01LUrfSHH7YXVVkCwCf9B90nsVkDqdzXgC+X9t5/frd7m821VdaNtvi0Avnt/dcOEIkpIxhWUKt6pOnpFkB6doMH5a05eBUeWIJhWx9IWLUS3ejy68VDTzXMRpK3nyyZjIRSLtbbXi26ci0C62Eu7kvREwAYAW7duxXe/+90F/367ramCCvLlyZV0HM5VEVUV1Io6Vg11PpmhH93sVeqnbuSgwxbdPG8CHDhC809PAVZnLeRJvNNlg5opaLjr4YnWvLRzTxv3DBL85tsK0vu7Kh1HKlmAbTlIJb2TCPeKoD06Qb6nw6mIrzlQQY/bj4I+ZHYlwOzSdJLA9ejC+wuSUofcLZuz1ja3E4LdmKNhGflKHYeyZUQiIWxa7b282bBs1HQDhuW+/VA39Uqv0nxdlnI4MsiFr5vnLVDeqABPoAt5Eu902aAmZ6vI5mvNhxpdb5uzze95C9L72xzyXeN7yHepP8dAbybv7BfdmtLSvd7t7kwn6RW+H17J1bIJ2Gx09sZc000cnC7P5f+q44R1g67lIyEZjuNAa5iQRKHtZOZufOF7ZUhtfn+5xtyqvZM2Di36xSTIha+bQUrQJ+Zu5NzrVtmgHMdBqWagYdjNVXseOdu63avkZ95aLz0ALfferW7ox15ooHvTSZZa0KTHdHTLJmBrlzg36I15craKimZgIBZGseqdxR1Cc2shX70j3frCO8DewyXYlgNREjo2pBbU/P5ysbCCXF3H2FDnhqm7IRqWodUNFGt1hKT2u2UA3dnaJKoqGIyHfWVmD3pcvxnGF9Kb43elWnN3hjhsBxAFeO7OELQe3XoA6pVhdQqum73QDcNuXesZePjTS1tT9bMVc9aCfmDCigTHAeoNC44Dz2AwSO9It3p0mqkPRITDzQuJVyqEri9N9zkJvFuCBqQOBAhO889OH9vvE/NMQcODTzfzFE1ka4iE5bYTwf0GVEEyjAd5wp9fbBOJhqDVGp6LbYaSKjatHmj1vLZbSLDUC0x6ZVidFqZrPcsOMDFTedFc02AJk1cqDu13xrIJ2PYcKOCY1cmOrKACmpv8nrhhsJWzyWuT30A9Hgvo0fErpAit5LZegs7PA4Kt8BtMqtC0BgaTasfyKgHdyUfVLNvM1O9rKDlgsOv3vM3nxUoPqL72KPWrm8H5/GKbUUHEVK7qudgmqgZL3xCkrYNMBfCrV4bVaWEWMh/Mbz4xv3nK6Egc2n/5lk3Ali3UkIqHOtZ7EFUVnLFlpCupLHTDhqY1YEdCbcv6vXEFSUBZ001MzVZh2Q5KmoGa7j4/Dwi2JyYQbHKp3yG1IHPjomEZhYqOiZkyYqriHZA6wNMHC629StvtnRfkaTzIeQu6p6lf3XxAAPDCDauDN65A8yDnpgLMJ+Rs137B6mEiX9EBp81QcheH1Wnhgl7v/ZQNmqeMqJOWz6etC0863XgiyJV0TM3WoMgiSlrNM9Fn0E2X/fZg5Cs6VEX23ZuTr+iwLBuRaAiVWsOzfK6kY7ZUR1RVMFvyTmQaJPljkLlxNd3E4VkNtm2jXDNR0917PGbLOvKVOhRRRK1uYrZNMtUgT+NBes2GUxGccWymNYetkwldgwz5BtHMl6Y292xMePemBvksB2lrrWHCsmzYDgDHeypAEEEfUro5rE4L042guBfmV9LKtWwCtpGBSEeH37pFr5vIl5sBk26Y0Ovec82Crfz01yMwGFehGyYOTJchiULb3hxVkbHvcAUNw0RIkfHK40c9yxerDcwUNSiydyLjWt1EudqALYioVhvth5J8zo1rBqQS0gOxtoFS3bCgSGJrcUnd6FwC3yC9ZjXdQL5Sh6ooyFfqGBrwbkO/5m8W8cFIR4dwX+A0e1TbNErgYUOfba3VTRSrBiIhGVrDhObxfQoiSLAd9BxzCLX7uhkUL/X8Slq5lk3AduzawY7udBCU3ycpNSwjEQnBAZCQQ1DbTnD1l0x1pqDhtl/tg6Y1EImEcOEfrHe9wURVGamEinJZRyKhwmuPS6B58ypUdBiWDUVqBoVue11quomD0xU4zT4HaLr7DVTTTfx27yxikRCqWgPrRhPAwNHLBkmQGiRQCrp/ZhBB9s/s1k08yHBd0F6l+W2hRocSmCp49xYH2fUhyDzISFiGGlJgWCbUkIJImyEqvwFpkIeawGlIApyLftQLvUq9EBT3Qh1oeVk2V4pIWIZtL82yxCBbU0VCMmRZaKXf8MzZJgDDyQhsx4YoiJ7Dvr/bP4tnDhYQCcvQcjX8bn8C56TGj1o2V9JR0wwk4ipqmuF5owWAyWwFtbrVutFMZis45ZjMUcuWtDoGE2Gk4mEUKnWUNPfNIHXDxPBABGOZBA5ny55bBUXVYAlS/QZKQffPDMpv3q+u5kDzOVy3oIUPzu/96SHI3EZVESGKobY7HcABKlodjuNAECzPejR3WzjYmu927mlrPB9qRtOx1gOQ10PNQlbA9VsSUd+LQHqkV6kX0kj0Qh1oeeEnqAMCbU0lABvGkv5WGTnATEl70Ya5KdeijbljSVIzsGuYbXZcEOb+aR/TmmLREMKKCEkCwoqIWNR9scRoKgZRnEFFMyCKAkZT7j1Wg3EVkiSg3jAhSe2HZoPMKQyy0XiQst3SrWXvQYbr5nuVDk6VIfpoj6GkimhEQaGiIRpps9ClbqJhOLAdBw3bO39VkLK6YSIZDUEQAMeBZ9A/OVtFvlzHQCyMfNk7t2KtbmIwHsbakbiv3pFA6VD6LIlooMSyXe5V6kYOxG7phTrQ4lmMnmUGbJ3iMwAKtMoowBLyY8dTePy5HAzTxvCAimPHU65lg6woBYDj16Xx3KEyNL2BiBrC8evSrmXXjiaw/az1rcnzbkOnQLANqFeCbixyCTL8FlVlDCZUFCs6BuLth8pruolD2QpsAOLca9fFAbqJ3+7NtW7660bjrsPfQco6dnPawHxZx+M5JWhuxW71jvRbz0uQIKyb761bORC7qRfq0E29MPzdCxarZ7m3rxRLrBspNYLmbPMb3K0dTeCS1x7jK1AKmhNrOBXBhX+w3vew4drRhOe///vH9rsBdT/qhT0KG4aFim6gXaaQXElHsaJDkiQUK3rbofLnDxcxmathOBXFVKGG5w8XXT8bzeFvFfG5lcZePWFBygoisGEsgZAioWFYEDxGUNdk4jhhQ7o1zNkut6LfHSKC6uaxuyFQEtou9ipxTlhv6ZXh716wWJ9NBmwuupVSY768r5w/AS/sQQKloE9+UVUGBLXnewN6STf3KPQb3DUXBuiIhRXMlr2DMK1uYqZYD7DiUmgORQqA0KZ7uTn8LaLRsCBJoudwa9CyaliGJAgQ2y0OUBWcuSXjey5WkB0igujmsbshaBDWrV6lfuuZXO4YQL9gsT6b/MS7CPph7MZFqlcu7HySWpiu7WcYtD18psiIhGWkk2EokoSIKrVdcblxLIlnRuIQJQmxUBwbPVYxB10I0o2yQICUDF28GfXjja4Xhvb6cU7Ych4yZAD9gsX6bK7cM9xGt+diLOW2O0H14w2mF3RrP8Mg7REkHcpQUsW60WRrtXO7uY3DqQjO37rO9xzEbi0E6caiEc5h6029EDj6tdwfdPsxgO6mxfhs8krhomur9oJ8iQPkYVtIPXwPcfAGsyCB5isGnNsYZE6R33QoQcrOW65zELt5M+KNrr91Y0/jftVPAfRywDuvh64Mcwb5EgvA+HAciizAMJ2Obb+1kNVWXZtI7HMv0fmy3ZjA381hiyCfoSBzG7s1p4gX4Bd081zwPPeWbuSZ6/aDbpBrJy0PDNgWWdBhspAiQhQECErnvvALGWrt1hw9v3uJdmsCf78OW/CGT9QZ3coz1+0HXb/XTlo+2qQRp06b/xKPDUV99WytHoohHBKx2mMD7MDmhloPTlUwMVP1laW+phuYKWqo6UbHys5f/JKxEERBQK3NvqrzF8qlKkvU64J8T5e7oNchP9eAwNuQqQqGByJdG6nxc+2k5YM9bEvA90q1gKtEfQ/tBdjyav643eixmr/4laqNjk7K71bZfrWcV6rRC/q1t7gbujV02SvzD4NcO3sFr0MvX++3cp/oxpyprqV6CLDlVeB6LGDIIBJTMRTr4KT8LpXtR7yJL1y/3WBWwiR3v7o5dNkL0xGCXDt7Aa9DnbGiAragF+AgE1F/+3wODctGSBJx0sYhz8DK70bx0bCMQqWOgzMVxFUFm1a7rxKt1ZvbBFX0BuJqCKuHPYZQBSARVaA3TERDiq/ttHxvb7SAIYNMOoqsZXlXAt2bPN8LF+Bu4U18YWq6gQf2ZFu7Ipy5JdPz520l9Bb7tZDrUK+37+8Lcu1carwOdcaK+UYvJJO83yAsV9IxOVtDLKwgV9cx5jHfLMhG8TXdxIHpMhoNC/mQhOPXDbqWPZSt4JePH25tgr16OIbhgaPnptJ0E88cfOFcHDuect2rcZ4Ap5nRvs2Et+XeYxXUUvfS8Ca+MAezFTy5d7a568NUBaODEWxZO7jU1fLE794LeC56y0KuQ0t97exFK+bqHTTCz5V07J+uQJFEGJbtGYQBQMOw4TgGDNNj9+l5PjeKn5ytoFozkYwrKFUMTM5WXBOE5soaYqqMdFLFbElHrqy5Hre5V2OkdS689moEmucuElaQWcJdH/pRLwwDdPvG1a20LEutblgQBCAckqAbJupG7/diAPzuvRjPRe8Ieh3qhWtnL1oxAVvQCF+rm8gVdV/7KkZCMgAH9boJURLmXh9dkI3iVUWGIzioN2w4ggNVcT/u+FACgpBFsdKAIAgYH3LfU7S5V6Mwt1ej9/6LAHtpFqpXhgG6dePqVlqWXrAqHUM8EkK1biIeCWFVOuZZvp+CUXp52NYLE+Q61CvXzl6zbNJ6tNuoOqoqGIyHoRsGBuPhto0fCcuQJRFlrQ5ZEr33VRSAuBqCKDX/9Oo5i6oKxtIxhBURY2nvXrvxTBxrMnGIooM1mTjGM3HXslvWDeLVJ48hMxjCq08ew5Z17sM3w6kINo4l4Ag2No4lfO2/qCoSssUqVEVqe+727M/jpw/tx579ec9ywAs9NMsxDcFyD3S7lZYlcD26kMoiqspYMxLHeDqCNSNxRFWPrcLmgtHDuRqemSguy88yNbGtF8dyv3Yu1JKdhRtvvBGSJOGqq64CAJRKJfz1X/81Dhw4gHQ6jRtvvBGZTMb38fZNlbHGY6L9TEHDg09nIQkCJrI1RMKyZ6Ci6SamZmtwHAeCYEDT3W8ws0Udjzw7M9d7UMam1UnX+WNB6lHTTVR1A4okoaobqOnuTxkHpsp47LlZOI6Nx56bxYaxJNaOHr2X7cBUGb96YgqiIGByRsNgQnUtO1/+rocnIAoCnj5QQiQsu5bfsz+P7/78OYiCgPucLC557SbX4HG5J3/sduLMpX7K71ZaliC61XNXq5sYjIexdiTe0ZXR3dYLn4vlrJfaejnjHMSjW/QetnK5jA9/+MP42te+dsTPb7zxRmzduhW7d+/GW97yFnzqU58KdFwR3k/t+YoOSRCQHlAhCQLyFd3zeCWtjsFEGJtWJzGYCKOk1T3LDsRCWDsax0As5Fk2X9FhWQ5CIQmW5XjWI1/RIQoiUkkVoiB6lt0/XUZFayCkyKhoDeyfdt/bcarQzO02MhiBKAiYKlRdywYtP5ErQxQEjKabZSdy7vVYCckfu5E4s1ee8ucvqmtG4r63N/OTMBoIlvS0YdiwbBsNw+7YZ6gfc/n1yudiOeuVtgaW9+gE0L2kw/1s0T9td955JzZs2IB3vvOdR/z8rrvuwr/9278BAC666CJ84hOfgGEYUBR/jWXD+8szGFdhOQ5mizosx2k7b2s0FYMozqCimRBFAaMp9zksrbI1o21ZVZExU9QwW9JhO97z0oKUTUQVOA5Q0ww4TvO1V31tZwbTeQ2243jWN2j58aEE7nOymJptlvWaS9ePyR97QdCn/G7vldrptCxBcwpOzFRaOQU3jLl/3oLox1x+7P3pvp5p62U+OkFHt+h3yDe96U0AgC984QtH/Hx6ero1BCrLMuLxOGZnZzE6OurruKedMIaYxwc2k0kgPRRHrqhhaCCC0XTU83iZTAKD6RgOzVSwejiOjavd815kMgmEoyHsO1zC+rEkTto07FrWkSScdoKOum4irMpYszqFjEtdHEnCH5xqwrYciJLgWfasuArNdFAo6UglVZx16lrEI0c/H0HeW9DymUwCqcGor3MBAEPDCdQ0A1vWD7rWl44UiauoGg5EQUAiKWPtuPu5q2gG9s3UIAoCqoaB44cTXTnPmUxnAiUAmJ6tYTBlIhkLoVRtIBJTPb8jJxyTaa3mHhqKu5YNqqIZiGgGohGlLz6bQT4XL9bJtqPF8eLvCADP7wgtH10L2Hbv3o3rrrvuiJ9t2rQJN998s6/fdxwHouh/xDY/W0VNkTzL6LoBwbKgV3VfPQKiZSEdVSBaFrJZj6E93cDegwWYpoW9BwuIK6J7HraChsmpcrNHoOggl4lDcKmLphuAaUEWBNimDa1NvV+xfrD15KdVdGgeQ6hxRcSWVc1EvF7vbSHlRxJhjCQyvo89kkkgmy171peOlIkrc22teLb1TFFDuaS1el0OTORd51cuuC5z7dcpmm4gX6iiWKzBdhwMxWTXz72mG9BrdTTmeuPafUeCJMPup1Wt8/x+LlrlO9x2tDjmvyMAkC9UPb8j1HtEUcDQkPsiQjddC9i2b9+O7du3+y4/MjKCmZkZjI2NwTRNVKtVpFIp37/fbtFBkB0G5sv7vWAHSYYLARgfjkGWRZim3XZFabe2TOHk5P7mt617ac6NX90ajgy0J26fDi8y99jK0G9bU1Fn9Exaj23btuHWW28FANx2223YunWr7/lrQPtFB/NBVa1u4XCuilzJ+8kzcBoCn8lwo2EZIUWCLIoIKd7bPAHLe9I6LZzfSflBJ/t3U5D0G0E+937LBvlO92OgSytLVFUwkvboHOgx3Ui/s9L0zFXo6quvxrXXXosdO3YgkUjghhtuCPT77RYdAIBpWajqgOVngnSAC3aQZLi9MGm1X3sPqCnocF03e1387nTQC0OMgVZ+9sD3lGi56IXv/3KwZAHbfP61ealUCl/+8pcXfLzRlPcTdiQkw3YEmA0Toih67kYABB+W2bhqAPmKjsG42tGhy25g70F/65WAO9BOB3UTDcNqTQVYipWt3Zxi0E2cvkD9rleuWf1u2dyppwoaFNl9sj8EYMNYEooswDCdtkOXQLA0BIdyzVxlh3JVRNXevrCy96C/9UrA/eI8esVizfsi7AATM9UXpd9Iuh+3i0/jvRKE+cWeCVoOeuWa1e+WzVmbn8PmdjFrzh0TIQoCBKWzH5h+fHrotxsXvaBXAu5AefQEYHw47uuBqR+/T93Cc0HLQa9cs/rdsgnY2s1hi6oKVg/FfA9bBsGnB1psvRBwB1mpFuSBid+nF/Bc0HLRC9esfrdsvv3rRxMIe+Rhq+kGnp8somHZKJTrHR225NPDwvmdtE69ye9OB/24c0Av4LkgonnLJmCLhGXYtuP697mSjsnZGmJhBbm6jrEh95xtC8Gnh+C4vcrKEuQ7wu/TC3guiAjooTxsi8IBnLk/aemthM3fg2CeIiIicrNsetjaGUqqGBuKwTQtJGMhz1xptDi6ufl7v6VC4GpAIiLysmICtqiq4OSN6b66iXdT0ICmm3mxOr29Sj8GP1wNSEREXlZMwAZwLsi8oAFNt/Ni+Zm0HkS3g58gwavfslwNSEREXnhXWIGCBjT91vvTzeAn0AbiAcpyNSAREXlhwNYh/TRnKmhA02+9P90MfoIEr0EDXfYAExGRm96+8/aJfpsztZA9Ffut96dbwU+gDcT7LNAlIqLexTtIB/TbkCEQPKBh708TE8CuHP3Ua05Eyx8Dtg5gT8rKwgSwy1+/9ZoTLQU+1CwuRhYdwJ4UouWlH3vNiRYTH2oW38ra6aCLoqqC4YEIP7BEywB7zYm8vfihhjvVLA5ehYiIfg97zYm88aFm8fEMExEdBecfErnjQ83iY8BGRH2NE5+JlgYfahYXAzYi6luc+ExEKwUXHRBR3+LEZyJaKdjD1iEzBQ35io7BuIrhVGSpq0O0InDiMxGtFLy6dcBMQcMvH5+EJAiwHAevOXmVZ9DG4I6oMzjxmYhWCgZsHZCv6JAEAekBFbNFHfmK7hqIBQ3uiMgbJz4T0UrAOWwearqBmaKGmm54lhuMq7AcB7NFHZbjYDCuupbNV3RYloNQSIJlOchX9E5Xm4iIiJYZ9rC5CLL6bDgVwWtOXuVrmFNVZMwUNcyWdNiOA1VhExAREZG3JYsWbrzxRkiShKuuugoAcN999+Gqq67C2NgYAODEE0/Eddddt1TVC7yX4HAq4mtoM6LKOGlDGrbjQBQERFQGbERExJyC5G3Ro4VyuYzrrrsOP/zhD/Gud72r9fPHH38cV1xxBd773vcu6Lj5ko6BeLhT1UQ0LEOrGyjW6ghJYsdWn0XDMhKxUKvnjqvaiIiIOQWpnUWfw3bnnXdiw4YNeOc733nEzx977DH84he/wM6dO3HllVdicnIy0HHv3zONmYLWyarCgQDBaf7ZKfOr2saGor6+kH7n0RERUf9iTkFqZ9G7d970pjcBAL7whS8c8fNEIoHt27fjggsuwDe/+U1cc801uOWWW3wfNx4Nw5ElZDKJjtRzeraGVSNJJGMhlKoNRGIqMuloR47tV0UzsG+mBlEQUDUMHD+cQDyyPJ+4OtVutDTYfv2LbdcbInEVVaM5VSaRlLF2fNDX9Z7tt3J4BmyXX345BMG9d+lf/uVfXP9u9+7dL5mDtmnTJtx8881HLf+JT3yi9f+XXXYZPvvZz6JcLiOR8PdhzOarOGYsgWy27Kt8O5puIF+ooliswXYcDMVkZC2rI8f2a6aooVzSWvPoDkzkMTyw/FKAZDKdazdafGy//sW26y2ZuDI3h02BVtGhtckiwPbrT6IoYGgoHvj3PAO2P//zPwcA3H777ahUKvjTP/1TSJKE733ve0gmk54H3r59O7Zv3+6rErZt4ytf+Qre8573QJKk1s9f/P/tdW7YEuiNhJzM4k5EtHIwpyB58YwA3vCGNwAAvvrVr+KWW26BKDanvJ177rl429ve1rFKiKKI22+/HevXr8eFF16IW2+9FaeeeiqiUf9DkHFV9kxYuxBL/eXphaCRiGi54+rMlaOf29pXl00+n0e9Xkck0gyGqtUqisViRyty/fXX4yMf+QhuuukmpNNp7Nq1K9Dvt0tY26+WOmgkIlrOuDpz5ej3tvYVsF100UV461vfivPPPx+O4+BHP/oR3vrWt76sf3g+/9q8Y489NtAig9+3dctI27Qe/RxZExFR5wXNuUn9q9/b2lfAdvXVV+Pkk0/GvffeCwC49tprsW3btq5WLKjBpArbdlz/vt8jayIi6jzOFV45+r2tfdd2eHgYAwMDME2zNTTaT/o9siYios7jXOGVo9/b2lfi3FtvvRUf+MAHUC6XUa1W8Vd/9Vf49re/3e26dVS3I+sgCW6ZDJeIqHdEVQXDA5G+u4FTcP3c1r6ilptvvhnf+c53MDIyAgB497vfjf/6X//ry57HtpiiqoLVQ7HWBu2dbKwgw60cmiUiIqKgfPWw2bbdCtYAYHR0tJXio1dobbbxqOkGfrc/j2cPlfC7/fmO9m4F2VKE248QERFRUL6irlQqhTvuuKP1+o477sDAwEDXKrUQTx/wDsImshU89mwOB6bKeOzZHCaylbbH9Dt0GWS4td8nPRItFKcCEBEtnK9o4SMf+Qje//734+///u8BAIqi4KabbupqxYKaLmoYiIddhxcL1QbKWgMxVUFVN1CoNjyPF2ToMshExn6f9Ei0EJwKQET08vgK2I499lj86Ec/wt69e2HbNjZu3AhZ7rGeIfeMHgCAgVgI8YgCWRQRjygYiIU8ywddVRokwS2T4dJKw1XaREQvj6+oq1arYdeuXbj77rthmiZe85rX4G//9m8RjwffvLRbMqkohpLuOx2sycRxyjFDqOoGYqqCNRnvunPokqhz+H0iInp5BMdx2vRNNYdELcvC5ZdfDsuy8I1vfAOWZeH6669fjDr6cvBQAWHFe7P4mYLWWiXqZ89R7oywODKZBLLZ8lJXgxbIb/vx+9R7+N3rb2y//iSKAoaGgnd4+XrMfeSRR/Af//Efrdef/OQnsWPHjsD/WDdFwnLbnQ4O5aoQBQGHclVE1fY3DQ5dEnUOv09ERAvna5WoZVmwbbv12rZtSJJ3b1avYToNIiIi6le+etjOPvts/Lf/9t9w2WWXAQC++c1v4qyzzupqxTqNc2iIiIioX/maw2aaJv7xH/8RP//5z2FZFl772tfi/e9/P8Lh8GLU0ZdcruI5JApwDk2v4jyM/sb2619su/7G9utPC53D5itg6wd+AjbqTbzo9De2X/9i2/U3tl9Tv3XGdHXRwe23345du3ZhdnYWL47vHnzwwcD/YLfkSzoG4r3T40dERETdtZKScvsK2P7X//pf+Ju/+Rscf/zxEASh23VakPv3TOPUTcO+0nUQERFR/1tJSbl9BWzxeByvf/3ru12Xl0USBOQrOgM2IiKiFWIlLSj0ldbjFa94xRGbv/ciy3EwGHff6YCIiIiWl/n9uceGost6OBRo08N2+umnQxAEWJaFb33rWwiFQpBlGY7jQBCEnprDdvKGIfauERERrTArJSm3Z8D2gx/8YLHq8bIVaw0kop1ttH5beUJERETLk2fAtn//fpx99tn4yU9+ctS/Hx8f70qlFkKE0NHJhitp5QnRSsGHMCLqV54B2w9/+EOcffbZ+Nd//deX/J0gCLjgggu6VrGgbHR2suFKWnlCtBLwIYyI+plnhPPJT34SAI4asPWa9aMJhJXO7W+6klaeEK0E/foQxl5BIgLaBGxXXnml5y9/+ctf7mhlXo5IWO7oTgfzK094oSRaHvrxIYy9gkQ0z/OK9YY3vGGx6tGTVsrKE6KVoB8fwvq1V5CIOs8zYLvkkkta/3/48GE89dRTOOecczA1NYXVq1d3vXKdxqEFopWt3x7C+rFXkIi6w1fi3J/97Ge49NJL8fGPfxy5XA47duxYcCLdBx54AG9+85tx8cUX4x3veAcmJiYAAKVSCe95z3uwfft2/Nmf/Rmy2eyCju9mfmjhcK6GZyaKqOlGR49PRNRpKykpKBF58xWwffGLX8S3v/1tJJNJjIyM4Bvf+AY+//nPL+gf/NCHPoRPfvKT+N73voedO3e2FjbceOON2Lp1K3bv3o23vOUt+NSnPrWg47t58dCCKDRTgBAR9bqoqmB4IMJgjWiF8xWwWZaFkZGR1usTTjhhQZvANxoNXH311Tj++OMBAMcddxwmJycBAHfddRd27twJALjoootw9913wzA61wvGoQUiIiLqV76ilkgkgkOHDrWCtPvvvx/hcDjwPxYKhXDxxRcDAGzbxhe/+MXWpvLT09PIZDLNSsky4vE4ZmdnMTo66uvYQ0Px9mWGE6hpBqIRBfEIn1Z7SSaTWOoq0MvA9utfbLv+xvZbOXwFbH/1V3+FK664AtlsFm9729uwd+9efOELX/D8nd27d+O666474mebNm3CzTffjEajgWuvvRamaeK9733vUX/fcRyIoq8OQABALlfxldZDAKBVLGgV3fexqbsymQSy2fJSV4MWiO3Xv9h2/Y3t159EUfDVyfT7fAVsZ5xxBr797W/joYcegm3bOPXUU5FOpz1/Z/v27di+fftLfl6tVvG+970PqVQKX/rSl6AozZ6ukZERzMzMYGxsDKZpolqtIpVKBX5DRERERMuNry6sO+64A8lkEtu2bcN5550Hx3Fce8ba+dCHPoT169fjxhtvRCgUav1827ZtuPXWWwEAt912G7Zu3doK5vpBTTcwU9S4+pSIiIg6zlfAdt111+HXv/41AOD222/Hzp07sW7dusD/2BNPPIE777wTDz74IC655BJcfPHFePe73w0AuPrqq/Hwww9jx44d+MY3voGPfvSjgY+/VJgyhIiIiLpJcByn7cSvZ599Fu973/twwgkn4IknnsCnPvUpvOpVr1qM+vnmdw5bN8wUNRzO1VrZyMeGohgeiCxJXfpNTTcQianQqjrTFvQpzqPpX2y7/sb2608LncPmq4ftmGOOwU033YTf/OY32LVrV88FawCgLWFeNaYMWZj5nsmD0xX2TBIREXnwjCxOP/30I/KtNRoNXH755VAUBYIg4MEHH+x6Bf3aN1XGmuHYkvTS9OMehb1gPplxMhZCsVjjPolEREQuPAO2H/zgB4tVj5dNhLCkN/x+26OwF8z3TJaqDfZMEhERefC8Q+7fvx9nn302fvKTnxz178fHx7tSqYWwwRt+v5nvmYzEVAzF2DNJRETkxjPC+eEPf4izzz4b//qv//qSvxMEARdccEHXKhbU+tEEwoq01NWggKKqgkw6iqxlLXVViIiIepavVaL9YClXidLL028rnWq64Xu+YpCy3apDt/Vb+9EL2Hb9je3Xn7qy08GVV17p+ctf/vKXA/+DRP1sfmWrKAiwHQebxwdcA6YgZbtVByIiWh48A7Y3vOENi1UPor4wv7J1Puee10KXIGW7VQciIloePAO2Sy655CU/+9a3voW3ve1tXasQUS8LknOvW/n5mPePiGjlCXylv+WWWxiw0YoVJOdet/LzMe8fEdHKEzhgWyZrFIgWLEjOvW7l52PePyKilcXX1lQvdvLJJ3ejHkRERETkwlcP26FDh1r///73vx+Tk5NQVRWDg4NdqxgRERERNfkK2C677DJMT08jFotBFEWUy2VIkoTBwUH8wz/8A84444xu15OIiIhoxfIVsL361a/GWWedhTe96U0AgB//+Mf45S9/iUsvvRQf+9jH8J3vfKebdSQiIiJa0XzNYfvd737XCtaAZn62xx9/HCeeeCIMw+hW3YgWrKYbmClqqOn8fBIRLWcr5XrvK2AzTRN79uxpvd6zZw9s20a9Xodpml2rHNFCzO8EcDhXwzMTxWX/JSYiWqlW0vXe15DoX//1X+Pyyy/HscceC9u2sW/fPtxwww34/Oc/j9e//vXdriNRINwJgIhoZVhJ13tfAdu2bdvw4x//GPfffz9kWcbpp5+OgYEBvOIVr0A8HnwD037RSxtsk3/cCYCIaGVYSdd7X+/Mtm185zvfwd133w3TNPGa17wGV1555bIP1rjBdn/iTgBERCvDSrre+5rD9tnPfha/+tWv8I53vAPvfOc78dBDD2HXrl3drtuSenE3qygIqNU5V6+fRFUFwwORZf3lJSKilXO999XD9vOf/xz/7//9PyhK82Sce+65eOMb34gPf/jDXa3cUlpJ3axERETU23xFIY7jtII1AAiFQke8Xo5WUjcrERER9TZfAdvxxx+PT3/60/jzP/9zCIKAr3/969iyZUu367bkuME2ERER9QJfc9g+9rGPoVQq4dJLL8Vb3/pW5HI5XHbZZd2uGxERERHBZw9bPB7HZz7zmSN+dsYZZ+DBBx/sSqWIiIiI6AULnknvOM6Cfu+BBx7AddddB8MwkEql8OlPfxrj4+O47777cNVVV2FsbAwAcOKJJ+K6665baPWIiIiIlo0FB2yCICzo9z70oQ/hH//xH3H88cfj3//93/HJT34SX/rSl/D444/jiiuuwHvf+96FVqnjmDiXiIjo5eP99OXzNYetUxqNBq6++mocf/zxAIDjjjsOk5OTAIDHHnsMv/jFL7Bz505ceeWVrZ/7pXU4T9pK2p+MiIioW3g/7QzPHrbTTz/9qD1pjuNA1/XA/1goFMLFF18MoLl7whe/+MXWXqSJRALbt2/HBRdcgG9+85u45pprcMstt/g+9mzNwKbxGOKRzkTu07M1DKZMJGMhlKoNRGIqMuloR45NL5XJJJa6CvQysP36F9uuv/VD+/F+2hmC4zEZbWJiwvOXx8fHXf9u9+7dL5mDtmnTJtx8881oNBq49tprUSwW8eUvf/moOd22bt2Kn/70p0gk/H0Y733oIFKJEIYHIq5lgnTJcmuqxZPJJJDNlpe6GrRA3Wg/Dp8sDn73+lu/tB/vp0cSRQFDQ8G39vTsYfMKyNrZvn07tm/f/pKfV6tVvO9970MqlcKXvvQlKIoC27bxla98Be95z3sgSVKr7Iv/vx0b3rsRBP3AMHEu0dLgxZ1oeeH9tDMWdQ4b0Fx0sH79etx4440IhULNSogibr/9dvz4xz8GANx666049dRTEY367zJdP5rw/BAsZG/QlbI/GVEv4T6+RMsP76cv36JukPnEE0/gzjvvxObNm3HJJZcAAEZGRvB//+//xfXXX4+PfOQjuOmmm5BOpwNvLh8Jy7Bt91Qj0bCMWt1EqVqHLEvcG5SoR3EfXyKil1rUK+GJJ56Ip5566qh/d+yxxwZaZLAQAhw4QvNPIupNHD4hInqpFfPoWqubiIQVZKIKKrW5Cc28ERD1JO7jS0R0pEWfw7ZUOMxCRERE/WrFRC0cZiFqj+k0iIh604oJ2AAOsxB5YToNIqLetWKGRInIG9NpEBH1LgZsRASA8zyJiHoZr8hEBIDzPImIetmKCtg4oZrIG+d5EhH1pmUTsGl1E2HFfe9RTqgmIiKifrVs5rDtmyqjphuuf88J1URERNSvlk3AJsI7COOEaiIiIupXyyZqseEdhHFCNREREfWrZROwrR9NeM5hAzihmmil48IjIupXyyZgi4Rl2Laz1NUgoh7FhUdE1M+WzRw2IiIvXHhERP2MARsRrQhceERE/YxXLCJaEbjwiIj6GQM2IloxuPCIiPoVh0SJiIiIehwDNiIiIqIex4CNiIiIqMcxYCMiIiLqccsmYNOYU4mIiIiWqWUTsO2bKqOmG0tdDSIiIqKOWzYBmwhmLiciIqLladkEbDaYuZyIiIiWp0UP2O6//378yZ/8CXbu3Ikrr7wSxWIRAFAqlfCe97wH27dvx5/92Z8hm80GOu760UTfJMSs6QZmihqHcImIiMiXRQ/Y/sf/+B/YtWsXvv/972Pz5s346le/CgC48cYbsXXrVuzevRtvectb8KlPfWqxq7YoarqBZyaKOJyr4ZmJIoM2IiIiamvRA7bbbrsNmzdvhmEYmJqaQjKZBADcdddd2LlzJwDgoosuwt133w3D8B/M9Muig1rdRMOwYNo2GobFeXdERETU1qIHbIqi4KmnnsK2bdvw61//Gjt27AAATE9PI5PJAABkWUY8Hsfs7Kzv4/bNogMHmJip4uBUBRMzVcBZ6goRERFRr+vaLP3du3fjuuuuO+JnmzZtws0334zjjjsO99xzD2655RZcc801uOWWW17y+47jQBT9x5OxRBhrx1OIR3p7HpsjSThhUwaKLMIwbQwNxZFJR5e6Wksuk0ksdRXoZWD79S+2XX9j+60cXQvYtm/fju3btx/xs3q9jjvuuAOvf/3rAQBvfOMbcf311wMARkZGMDMzg7GxMZimiWq1ilQq5fvfS0cVaBUdWkXv2HvoBk03oGt1NAQBtuNAq+rIWtZSV2tJZTIJZLPlpa4GLRDbr3+x7fob268/iaKAoaF48N/rQl1cybKMj3/843j88ccBNHvhzjjjDADAtm3bcOuttwJoznPbunUrFMV/b1mkT1J6RFUFm8cHMDYUxebxgb5Z2UpERERLZ1GjHEmS8LnPfQ4f/ehHYVkWRkdHW6tBr776alx77bXYsWMHEokEbrjhhsWs2lHVdAO1uoloWG4bWAUpG1UVBmpERETkm+A4zrKY9p7LVWDb3m8laAD2zEQR4tzQpVdvWJCy9FLs1u9vbL/+xbbrb2y//tQXQ6JLKWj+s1rdhCgIiEcViIL3CtQgZYmIiIiCWjkBW8D8Z9GwDNtxUKkZsB3vba+ClCUiIiIKauVEFnP5zyRBgOU42DCW9Cw+vzjAzxBqkLJEREREQa2cgE0AxofjUGQBhukAQmcPz4UERERE1C0rJmCLhmWEFBGiIEBQ2g9bBl1IMFPQkK/oGIyrGE5FOl19IiIiWsGWTcCm1U2EFcn174MOW754IUGlNre61OV3Zgoafvn4ZGu49TUnr2LQRkRERB2zbBYd+Nn8PaoqGB6I+Bq6DLKQIF/RIQkC0gMqJEFAvsd3WyAiIqL+smx62OY3f+/UPLIgPXKDcRWW42C2qMNyHAzG1Y7UgYiIiAhYRgGbjc6n0/C7kGA4FcFrTl7FOWxERETUFcsmYFs/mvCcw9Ztw6kIAzUiIiLqimUzh61fNn8nIiIiCmrZBGxEREREyxUDNiIiIqIex4CNiIiIqMcxYCMiIiLqcQzYiIiIiHrcilpaWdMN31tTEREREfWKFROwBd3MnYiIiKhXrJgh0Rdv5i4KzW2siIiIiPrBignYgmzmTkRERNRLVkzUEmQzdyIiIqJesmICNsD/Zu5EREREvWTFDIkSERER9SsGbEREREQ9jgEbERERUY9jwEZERETU4xiwEREREfW4RV8lev/99+PTn/40DMPA+Pg4rr/+egwMDOC+++7DVVddhbGxMQDAiSeeiOuuu26xq0dERETUcwTHcZzF/AfPP/98fOlLX8LmzZtxww03QBRFfPCDH8Q///M/wzAMvPe9713QcXO5Cmx7Ud8KdUgmk0A2W17qatACsf36F9uuv7H9+pMoChgaigf/vS7UxdNtt92GzZs3wzAMTE1NIZlMAgAee+wx/OIXv8DOnTtx5ZVXYnJycrGrRkRERNSTFr2HDQCeeuopvPOd74Qsy/jWt76FVatW4aMf/SjOOeccXHDBBfjmN7+J733ve7jlllsWu2pEREREPadrAdvu3btfMgdt06ZNuPnmm1uvb7nlFtx6661HDcy2bt2Kn/70p0gkEr7+PQ6J9i926/c3tl//Ytv1N7Zff1rokGjXFh1s374d27dvP+Jn9Xodd9xxB17/+tcDAN74xjfi+uuvh23b+MpXvoL3vOc9kCSpVf7F/09ERES0Ui3qHDZZlvHxj38cjz/+OIBmL9wZZ5wBURRx++2348c//jEA4NZbb8Wpp56KaDS6mNUjIiIi6kmLPodtPq2HZVkYHR3FJz7xCYyNjeHpp5/GRz7yEZTLZaTTaezatQurVq3yfVwOifYvduv3N7Zf/2Lb9Te2X39a6JDokiw66AYGbP2LF53+xvbrX2y7/sb26099k9aDiIiIiIJhwEZERETU4xiwEREREfU4BmxEREREPY4BGxEREVGPY8BGRERE1OMYsBERERH1OAZsRERERD2OARsRERFRj2PARkRERNTjGLARERER9TgGbEREREQ9jgEbERERUY9jwEZERETU4xiwEREREfU4BmxEREREPY4BGxEREVGPY8BGRERE1OMYsBERERH1OAZsRERERD1u2QRsWt1sW6amG5gpaqjpxiLUiIiIiKgz5KWuQKccztcwNhhFJHz0t6TVTRycqUKEgNlyHetHE65lafGJorDUVaCXge3Xv9h2/Y3t138W2maC4zhOh+tCRERERB20bIZEiYiIiJYrBmxEREREPY4BGxEREVGPY8BGRERE1OMYsBERERH1OAZsRERERD2OARsRERFRj2PARkRERNTjGLARERER9bi+D9i+//3v48ILL8QFF1yAf/u3f1vq6pAPlUoFF110EQ4ePAgAuOeee7Bz505ccMEF+NznPrfEtSMvX/ziF7Fjxw7s2LEDu3btAsD26xf/8A//gAsvvBA7duzA1772NQBsu350/fXX49prrwXA9usnl19+OXbs2IGLL74YF198MR555JHg7ef0scOHDzvnnXeek8/nnWq16uzcudN5+umnl7pa5OHhhx92LrroIuekk05yDhw44Gia5mzbts3Zv3+/YxiGc8UVVzh33XXXUleTjuKXv/yl87a3vc2p1+tOo9Fw3v72tzvf//732X594Ne//rVz6aWXOoZhOJqmOeedd57z5JNPsu36zD333OOcddZZzt/8zd/w2tlHbNt2zjnnHMcwjNbPFtJ+fd3Dds899+AP/uAPkEqlEI1G8YY3vAE/+tGPlrpa5OHb3/42Pvaxj2FkZAQA8Oijj2L9+vVYu3YtZFnGzp072YY9KpPJ4Nprr0UoFIKiKDjmmGOwd+9etl8feNWrXoV/+Zd/gSzLyOVysCwLpVKJbddHCoUCPve5z+HKK68EwGtnP3nuuecAAFdccQXe+MY34utf//qC2q+vA7bp6WlkMpnW65GREUxNTS1hjaidT33qU9i6dWvrNduwfxx77LE47bTTAAB79+7F7t27IQgC269PKIqCz3/+89ixYwfOPvtsfvf6zEc/+lFcc801SCaTAHjt7CelUglnn302brrpJtx888245ZZbcOjQocDt19cBm23bEASh9dpxnCNeU+9jG/afp59+GldccQX++3//71i7di3br4984AMfwL333ovJyUns3buXbdcnvvOd72DVqlU4++yzWz/jtbN/nH766di1axcSiQTS6TTe/OY34/Of/3zg9pO7XdFuGhsbw/333996nc1mW0Nt1B/GxsaQzWZbr9mGve2BBx7ABz7wAXz4wx/Gjh07cN9997H9+sCzzz6LRqOBE044AZFIBBdccAF+9KMfQZKkVhm2Xe+67bbbkM1mcfHFF6NYLKJWq2FiYoLt1yfuv/9+GIbRCrgdx8H4+Hjga2df97C9+tWvxr333ovZ2Vlomoaf/OQn+MM//MOlrhYFcOqpp+L555/Hvn37YFkWfvCDH7ANe9Tk5CT+8i//EjfccAN27NgBgO3XLw4ePIi/+7u/Q6PRQKPRwJ133olLL72Ubdcnvva1r+EHP/gBvve97+EDH/gAXve61+Gf/umf2H59olwuY9euXajX66hUKvjud7+LD37wg4Hbr6972EZHR3HNNdfg7W9/OwzDwJvf/GaccsopS10tCiAcDuMzn/kMrrrqKtTrdWzbtg1//Md/vNTVoqP46le/inq9js985jOtn1166aVsvz6wbds2PProo3jTm94ESZJwwQUXYMeOHUin02y7PsVrZ/8477zz8Mgjj+BNb3oTbNvGf/kv/wWnn3564PYTHMdxFqnORERERLQAfT0kSkRERLQSMGAjIiIi6nEM2IiIiIh6HAM2IiIioh7HgI2IiIioxzFgIyIiIupxDNiIaEV5+OGHcfnll2Pnzp246KKL8K53vQtPP/00gObmzLOzs0tcQyKil+rrxLlEREE0Gg28973vxT//8z/jpJNOAgB873vfw7vf/W7ceeed+OUvf7nENSQiOjoGbES0YmiahnK5jFqt1vrZG9/4RsTjcfzd3/0dAOAd73gH/s//+T8QRRGf+MQnMDk5CcMwsGPHDlx55ZU4ePAgLr/8crz2ta/FI488Asdx8NGPfhRbt25dqrdFRCsAdzogohXla1/7Gm688UYMDw/jjDPOwFlnnYUdO3YgEonguOOOw7333ot0Oo23v/3t+Iu/+Au87nWvQ71ex7vf/W5ceumlOOWUU/BHf/RHuOGGG7Bz50787Gc/w9/+7d/ipz/9KRRFWeq3R0TLFAM2IlpxKpUKfvOb3+A3v/kN7rzzTgDAv//7v2Pr1q249957oaoqzjzzTGzZsqX1O7VaDdu3b8db3/pW/Mmf/Anuu+++1t9t27YNN910E04++eRFfy9EtDJwSJSIVowHHngADz30EN71rnfhvPPOw3nnnYcPfvCDuOiii46Yv2bbNhzHwS233IJIJAIAmJ2dRTgcRj6fhyRJRxzXtu2X/IyIqJO4SpSIVox0Oo0vfelLuP/++1s/y2azqFQq2LJlCyRJgmmaiMfjOO200/C1r30NAFAqlXDZZZe1euNmZ2dx9913AwD+8z//E4qiHNEbR0TUaRwSJaIV5Ve/+hW+8IUv4PDhwwiHw0gkEvjLv/xL/OEf/iE++MEP4re//S2+8IUvIBqN4u///u9x6NAhNBoNXHTRRbjqqqtw8OBBXHjhhTj//PPx9NNPQ1VVfPzjH8cJJ5yw1G+NiJYxBmxERAEcPHgQO3fuxEMPPbTUVSGiFYRDokREREQ9jj1sRERERD2OPWxEREREPY4BGxEREVGPY8BGRERE1OMYsBERERH1OAZsRERERD3u/wfBlY7oY1xDewAAAABJRU5ErkJggg==\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# plot the likelihood evolution\\n\",\n    \"\\n\",\n    \"# set up the min and max boundary for the plots\\n\",\n    \"tmp_list = [x.sum(axis = 1, skipna = True).values for x in iqspr_results_reorder[\\\"loglike\\\"]]\\n\",\n    \"flat_list = np.asarray([item for sublist in tmp_list for item in sublist])\\n\",\n    \"y_max, y_min = max(flat_list), min(flat_list)\\n\",\n    \"\\n\",\n    \"_ = plt.figure(figsize=(10,5))\\n\",\n    \"_ = plt.xlim(0,len(iqspr_results_reorder[\\\"loglike\\\"]))\\n\",\n    \"_ = plt.ylim(y_min,y_max)\\n\",\n    \"_ = plt.xlabel('Step')\\n\",\n    \"_ = plt.ylabel('Log-likelihood')\\n\",\n    \"for i, ll in enumerate(tmp_list):\\n\",\n    \"    _ = plt.scatter([i]*len(ll), ll ,s=10, c='b', alpha=0.2)\\n\",\n    \"_ = plt.show()\\n\",\n    \"#plt.savefig('iqspr_loglike_reorder.png',dpi = 500)\\n\",\n    \"#plt.close()\\n\",\n    \"\\n\",\n    \"y_max, y_min = np.exp(y_max), np.exp(y_min)\\n\",\n    \"_ = plt.figure(figsize=(10,5))\\n\",\n    \"_ = plt.xlim(0,len(iqspr_results_reorder[\\\"loglike\\\"]))\\n\",\n    \"_ = plt.ylim(y_min,y_max)\\n\",\n    \"_ = plt.xlabel('Step')\\n\",\n    \"_ = plt.ylabel('Likelihood')\\n\",\n    \"for i, ll in enumerate(tmp_list):\\n\",\n    \"    _ = plt.scatter([i]*len(ll), np.exp(ll) ,s=10, c='b', alpha=0.2)\\n\",\n    \"_ = plt.show()\\n\",\n    \"#plt.savefig('iqspr_like_reorder.png',dpi = 500)\\n\",\n    \"#plt.close()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 1-2min to complete!</span>**\\n\",\n    \"\\n\",\n    \"Next, we plot the evolution of the generated molecules in the target property space. Note that if your forward models are BayesRidge, you need to add return_std=True to the predict function.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 59,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Range of std. dev.: (25.5198,33.2724)\\n\",\n      \"CPU times: user 19.1 s, sys: 190 ms, total: 19.3 s\\n\",\n      \"Wall time: 20.2 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# re-calculate the property values for the proposed molecules\\n\",\n    \"x_mean, x_std, y_mean, y_std = [], [], [], []\\n\",\n    \"r_std = []\\n\",\n    \"FPs_samples = []\\n\",\n    \"for i, smis in enumerate(iqspr_results_reorder[\\\"samples\\\"]):\\n\",\n    \"    tmp_fps = RDKit_FPs.transform(smis)\\n\",\n    \"    FPs_samples.append(tmp_fps)\\n\",\n    \"    \\n\",\n    \"    tmp1, tmp2 = prd_mdls[\\\"E\\\"].predict(tmp_fps)\\n\",\n    \"    x_mean.append(tmp1)\\n\",\n    \"    x_std.append(tmp2)\\n\",\n    \"    \\n\",\n    \"    tmp1, tmp2 = prd_mdls[\\\"HOMO-LUMO gap\\\"].predict(tmp_fps)\\n\",\n    \"    y_mean.append(tmp1)\\n\",\n    \"    y_std.append(tmp2)\\n\",\n    \"    \\n\",\n    \"    r_std.append([np.sqrt(x_std[-1][i]**2 + y_std[-1][i]**2) for i in range(len(x_std[-1]))])\\n\",\n    \"\\n\",\n    \"# flatten the list for max/min calculation\\n\",\n    \"flat_list = [item for sublist in r_std for item in sublist]\\n\",\n    \"print('Range of std. dev.: (%.4f,%.4f)' % (min(flat_list),max(flat_list)))\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 1-2min to complete!</span>**\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"We can see that the algorithm spent a longer time exploring the lower internal energy region, which ends up not able to find candidates within our target region in this particular test case. In practice, a certain direction may be preferred to guide the search based on prior knowledge.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 60,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 19.2 s, sys: 398 ms, total: 19.6 s\\n\",\n      \"Wall time: 19.6 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"import os\\n\",\n    \"\\n\",\n    \"# prepare a folder to save all the figures\\n\",\n    \"ini_dir = './iQSPR_tutorial_prd2/'\\n\",\n    \"if not os.path.exists(ini_dir):\\n\",\n    \"    os.makedirs(ini_dir)\\n\",\n    \"\\n\",\n    \"flat_list = np.asarray([item for sublist in r_std for item in sublist])\\n\",\n    \"s_max, s_min = max(flat_list), min(flat_list)\\n\",\n    \"flat_list = np.concatenate((data_ss[\\\"E\\\"],\\n\",\n    \"    np.asarray([item for sublist in x_mean for item in sublist])))\\n\",\n    \"x_max, x_min = max(flat_list), min(flat_list)\\n\",\n    \"flat_list = np.concatenate((data_ss[\\\"HOMO-LUMO gap\\\"],\\n\",\n    \"    np.asarray([item for sublist in y_mean for item in sublist])))\\n\",\n    \"y_max, y_min = max(flat_list), min(flat_list)\\n\",\n    \"tmp_beta = iqspr_results_reorder[\\\"beta\\\"]\\n\",\n    \"\\n\",\n    \"for i in range(len(r_std)):\\n\",\n    \"    dot_size = 45*((np.asarray(r_std[i])-s_min)/(s_max-s_min)) + 5\\n\",\n    \"    \\n\",\n    \"    _ = plt.figure(figsize=(5,5))\\n\",\n    \"    rectangle = plt.Rectangle((0,0),200,3,fc='y',alpha=0.1)\\n\",\n    \"    _ = plt.gca().add_patch(rectangle)\\n\",\n    \"    _ = plt.scatter(data_ss[\\\"E\\\"], data_ss[\\\"HOMO-LUMO gap\\\"],s=3, c='b', alpha=0.2)\\n\",\n    \"    _ = plt.scatter(x_mean[i], y_mean[i],s=dot_size, c='r', alpha=0.5)\\n\",\n    \"    _ = plt.title('Step: %i (beta = %.3f, %.3f)' % (i,tmp_beta.iloc[i,0],tmp_beta.iloc[i,1]))\\n\",\n    \"    _ = plt.xlim(x_min,x_max)\\n\",\n    \"    _ = plt.ylim(y_min,y_max)\\n\",\n    \"    _ = plt.xlabel('Internal energy')\\n\",\n    \"    _ = plt.ylabel('HOMO-LUMO gap')\\n\",\n    \"    #plt.show()\\n\",\n    \"    _ = plt.savefig(ini_dir+'Step_%02i.png' % i,dpi = 500)\\n\",\n    \"    _ = plt.close()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Thank you for using XenonPy-iQSPR. We would appreciate any feedback and code contribution to this open-source project.\\n\",\n    \"\\n\",\n    \"The sample code can be downloaded at:\\n\",\n    \"https://github.com/yoshida-lab/XenonPy/blob/master/samples/iQSPR.ipynb\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"MB16_xepy37_v06_test_env\",\n   \"language\": \"python\",\n   \"name\": \"mb16_xepy37_v06_test_env\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.9\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "docs/source/xenonpy.contrib.extend_descriptors.descriptor.rst",
    "content": "xenonpy.contrib.extend\\_descriptors.descriptor package\n======================================================\n\nSubmodules\n----------\n\nxenonpy.contrib.extend\\_descriptors.descriptor.frozen\\_featurizer\\_descriptor module\n------------------------------------------------------------------------------------\n\n.. automodule:: xenonpy.contrib.extend_descriptors.descriptor.frozen_featurizer_descriptor\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.contrib.extend\\_descriptors.descriptor.mordred\\_descriptor module\n-------------------------------------------------------------------------\n\n.. automodule:: xenonpy.contrib.extend_descriptors.descriptor.mordred_descriptor\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.contrib.extend\\_descriptors.descriptor.organic\\_comp\\_descriptor module\n-------------------------------------------------------------------------------\n\n.. automodule:: xenonpy.contrib.extend_descriptors.descriptor.organic_comp_descriptor\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.contrib.extend_descriptors.descriptor\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.contrib.extend_descriptors.rst",
    "content": "xenonpy.contrib.extend\\_descriptors package\n===========================================\n\nSubpackages\n-----------\n\n.. toctree::\n   :maxdepth: 4\n\n   xenonpy.contrib.extend_descriptors.descriptor\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.contrib.extend_descriptors\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.contrib.ismd.rst",
    "content": "xenonpy.contrib.ismd package\n============================\n\nSubmodules\n----------\n\nxenonpy.contrib.ismd.reactant\\_pool module\n------------------------------------------\n\n.. automodule:: xenonpy.contrib.ismd.reactant_pool\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.contrib.ismd.reactor module\n-----------------------------------\n\n.. automodule:: xenonpy.contrib.ismd.reactor\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.contrib.ismd\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.contrib.rst",
    "content": "xenonpy.contrib package\n=======================\n\nSubpackages\n-----------\n\n.. toctree::\n   :maxdepth: 4\n\n   xenonpy.contrib.extend_descriptors\n   xenonpy.contrib.ismd\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.contrib\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.datatools.rst",
    "content": "xenonpy.datatools package\n=========================\n\nSubmodules\n----------\n\nxenonpy.datatools.dataset module\n--------------------------------\n\n.. automodule:: xenonpy.datatools.dataset\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.datatools.preset module\n-------------------------------\n\n.. automodule:: xenonpy.datatools.preset\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.datatools.splitter module\n---------------------------------\n\n.. automodule:: xenonpy.datatools.splitter\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.datatools.transform module\n----------------------------------\n\n.. automodule:: xenonpy.datatools.transform\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.datatools\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.descriptor.rst",
    "content": "xenonpy.descriptor package\n==========================\n\nSubmodules\n----------\n\nxenonpy.descriptor.base module\n------------------------------\n\n.. automodule:: xenonpy.descriptor.base\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.descriptor.cgcnn module\n-------------------------------\n\n.. automodule:: xenonpy.descriptor.cgcnn\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.descriptor.compositions module\n--------------------------------------\n\n.. automodule:: xenonpy.descriptor.compositions\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.descriptor.fingerprint module\n-------------------------------------\n\n.. automodule:: xenonpy.descriptor.fingerprint\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.descriptor.frozen\\_featurizer module\n--------------------------------------------\n\n.. automodule:: xenonpy.descriptor.frozen_featurizer\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.descriptor.structure module\n-----------------------------------\n\n.. automodule:: xenonpy.descriptor.structure\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.descriptor\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.inverse.iqspr.rst",
    "content": "xenonpy.inverse.iqspr package\n=============================\n\nSubmodules\n----------\n\nxenonpy.inverse.iqspr.estimator module\n--------------------------------------\n\n.. automodule:: xenonpy.inverse.iqspr.estimator\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.inverse.iqspr.iqspr module\n----------------------------------\n\n.. automodule:: xenonpy.inverse.iqspr.iqspr\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.inverse.iqspr.iqspr4df module\n-------------------------------------\n\n.. automodule:: xenonpy.inverse.iqspr.iqspr4df\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.inverse.iqspr.modifier module\n-------------------------------------\n\n.. automodule:: xenonpy.inverse.iqspr.modifier\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.inverse.iqspr\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.inverse.rst",
    "content": "xenonpy.inverse package\n=======================\n\nSubpackages\n-----------\n\n.. toctree::\n   :maxdepth: 4\n\n   xenonpy.inverse.iqspr\n\nSubmodules\n----------\n\nxenonpy.inverse.base module\n---------------------------\n\n.. automodule:: xenonpy.inverse.base\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.inverse\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.mdl.rst",
    "content": "xenonpy.mdl package\n===================\n\nSubmodules\n----------\n\nxenonpy.mdl.base module\n-----------------------\n\n.. automodule:: xenonpy.mdl.base\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.mdl.descriptor module\n-----------------------------\n\n.. automodule:: xenonpy.mdl.descriptor\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.mdl.mdl module\n----------------------\n\n.. automodule:: xenonpy.mdl.mdl\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.mdl.method module\n-------------------------\n\n.. automodule:: xenonpy.mdl.method\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.mdl.model module\n------------------------\n\n.. automodule:: xenonpy.mdl.model\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.mdl.modelset module\n---------------------------\n\n.. automodule:: xenonpy.mdl.modelset\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.mdl.property module\n---------------------------\n\n.. automodule:: xenonpy.mdl.property\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.mdl\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.model.nn.rst",
    "content": "xenonpy.model.nn package\n========================\n\nSubmodules\n----------\n\nxenonpy.model.nn.layer module\n-----------------------------\n\n.. automodule:: xenonpy.model.nn.layer\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.model.nn.wrap module\n----------------------------\n\n.. automodule:: xenonpy.model.nn.wrap\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.model.nn\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.model.rst",
    "content": "xenonpy.model package\n=====================\n\nSubpackages\n-----------\n\n.. toctree::\n   :maxdepth: 4\n\n   xenonpy.model.nn\n   xenonpy.model.training\n   xenonpy.model.utils\n\nSubmodules\n----------\n\nxenonpy.model.cgcnn module\n--------------------------\n\n.. automodule:: xenonpy.model.cgcnn\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.model.extern module\n---------------------------\n\n.. automodule:: xenonpy.model.extern\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.model.sequential module\n-------------------------------\n\n.. automodule:: xenonpy.model.sequential\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.model\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.model.training.dataset.rst",
    "content": "xenonpy.model.training.dataset package\n======================================\n\nSubmodules\n----------\n\nxenonpy.model.training.dataset.array module\n-------------------------------------------\n\n.. automodule:: xenonpy.model.training.dataset.array\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.model.training.dataset.cgcnn module\n-------------------------------------------\n\n.. automodule:: xenonpy.model.training.dataset.cgcnn\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.model.training.dataset\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.model.training.extension.rst",
    "content": "xenonpy.model.training.extension package\n========================================\n\nSubmodules\n----------\n\nxenonpy.model.training.extension.persist module\n-----------------------------------------------\n\n.. automodule:: xenonpy.model.training.extension.persist\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.model.training.extension.tensor\\_convert module\n-------------------------------------------------------\n\n.. automodule:: xenonpy.model.training.extension.tensor_convert\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.model.training.extension.validator module\n-------------------------------------------------\n\n.. automodule:: xenonpy.model.training.extension.validator\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.model.training.extension\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.model.training.rst",
    "content": "xenonpy.model.training package\n==============================\n\nSubpackages\n-----------\n\n.. toctree::\n   :maxdepth: 4\n\n   xenonpy.model.training.dataset\n   xenonpy.model.training.extension\n\nSubmodules\n----------\n\nxenonpy.model.training.base module\n----------------------------------\n\n.. automodule:: xenonpy.model.training.base\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.model.training.checker module\n-------------------------------------\n\n.. automodule:: xenonpy.model.training.checker\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.model.training.clip\\_grad module\n----------------------------------------\n\n.. automodule:: xenonpy.model.training.clip_grad\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.model.training.loss module\n----------------------------------\n\n.. automodule:: xenonpy.model.training.loss\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.model.training.lr\\_scheduler module\n-------------------------------------------\n\n.. automodule:: xenonpy.model.training.lr_scheduler\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.model.training.optimizer module\n---------------------------------------\n\n.. automodule:: xenonpy.model.training.optimizer\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.model.training.trainer module\n-------------------------------------\n\n.. automodule:: xenonpy.model.training.trainer\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.model.training\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.model.utils.rst",
    "content": "xenonpy.model.utils package\n===========================\n\nSubmodules\n----------\n\nxenonpy.model.utils.metrics module\n----------------------------------\n\n.. automodule:: xenonpy.model.utils.metrics\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.model.utils\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.rst",
    "content": "xenonpy package\n===============\n\nSubpackages\n-----------\n\n.. toctree::\n   :maxdepth: 4\n\n   xenonpy.contrib\n   xenonpy.datatools\n   xenonpy.descriptor\n   xenonpy.inverse\n   xenonpy.mdl\n   xenonpy.model\n   xenonpy.utils\n   xenonpy.visualization\n\nModule contents\n---------------\n\n.. automodule:: xenonpy\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.utils.math.rst",
    "content": "xenonpy.utils.math package\n==========================\n\nSubmodules\n----------\n\nxenonpy.utils.math.product module\n---------------------------------\n\n.. automodule:: xenonpy.utils.math.product\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.utils.math\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.utils.rst",
    "content": "xenonpy.utils package\n=====================\n\nSubpackages\n-----------\n\n.. toctree::\n   :maxdepth: 4\n\n   xenonpy.utils.math\n\nSubmodules\n----------\n\nxenonpy.utils.parameter\\_gen module\n-----------------------------------\n\n.. automodule:: xenonpy.utils.parameter_gen\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.utils.useful\\_cls module\n--------------------------------\n\n.. automodule:: xenonpy.utils.useful_cls\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nxenonpy.utils.useful\\_func module\n---------------------------------\n\n.. automodule:: xenonpy.utils.useful_func\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.utils\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "docs/source/xenonpy.visualization.rst",
    "content": "xenonpy.visualization package\n=============================\n\nSubmodules\n----------\n\nxenonpy.visualization.heatmap module\n------------------------------------\n\n.. automodule:: xenonpy.visualization.heatmap\n   :members:\n   :undoc-members:\n   :show-inheritance:\n\nModule contents\n---------------\n\n.. automodule:: xenonpy.visualization\n   :members:\n   :undoc-members:\n   :show-inheritance:\n"
  },
  {
    "path": "hooks/build",
    "content": "#!/bin/bash\n\ndocker build --build-arg key=$api_key -f $DOCKERFILE_PATH -t $IMAGE_NAME ."
  },
  {
    "path": "licences/.gitkeep",
    "content": ""
  },
  {
    "path": "mi_book/README.md",
    "content": "# 演習問題\n\nこのリポジトリは，共立出版社が出版する「マテリアルズインフォマティクス」の演習問題1~22をまとめている．\nその内，演習16と17は，現在訓練済みモデルのダウンロードサービスのメンテナンスにより実行できない状態になってる．サービス開始後演習16と17を追加する．\n\n## 実行環境\n\n実行環境の構築に関しては，我々は[conda](https://docs.conda.io/en/latest/miniconda.html)の利用をおすすめします．\ncondaを利用した場合は，[XenonPy installation](https://xenonpy.readthedocs.io/en/latest/installation.html#using-conda-and-pip)を参考してください．\n\n独自で実行環境を構築する場合，以下の条件を満たすこと．\n\n* Python >= 3.7\n* Pymatgen >= 2020.10.9\n* rdkit == 2020.09\n* xenonpy >= 0.6\n* Pytorch >= 1.7.0\n\n## 演習用データの獲得\n\nこれらの演習を実行する前に，下記のデータセットを用意してください．\n\n* `retrieve_materials_project.ipynb`を実行して，Materials Projectから無機結晶データをダウンロード．\n* [In house data](https://github.com/yoshida-lab/XenonPy/releases/download/v0.6.5/data.zip)をダウンロードして，README.mdと同じフォルダに解凍してください．\n\nフォルダのストラクチャーのイメージ：\n```\ndata\n  |- QC_AC_data.pd.xz\n  |- mp_ids.txt\n  |- ...\noutput\n  |- <演習中の出力>\n  |- ...\nexercise_2-10.ipynb\nexercise...\n```\n\n## 目次\n\n### 1.3\n\n* 演習1）[XenonPy installation](https://xenonpy.readthedocs.io/en/latest/installation.html#using-conda-and-pip)を参考にXenonPyをインストールせよ．\n\n### 1.3.1\n\nNotebook: [Exercise 2~10](exercise_2-10.ipynb)\n\n* 演習2）配布したSMILES形式の化学構造をMOLオブジェクトという形式に変換し，化学構造を描画せよ．\n\n* 演習3）例題の化学構造の内，GetSubstructMatchを用いてベンゼン’c1ccccc1’にマッチする原子のインデックスを取得し，RDKitのモジュールを使用して，ベンゼンをカラーハイライトして化学構造を図示せよ．\n\n* 演習4）アスピリンCC(=O)Oc1ccccc1C(=O)OのECFPフィンガープリント（Morganフィンガープリント）を計算せよ．ビット数をB=2048，半径をR=2とする．\n\n* 演習5）演習4の各ビットの部分構造を取り出し，化学構造を描画せよ．\n\n* 演習6）カウント型のECFPフィンガープリントとアトムペアフィンガープリントを計算し，それぞれのベクトルの数値を可視化せよ．\n\n* 演習7）分子動力学シミュレーションのサンプルデータを用いて，モノマー構造のECFPフィンガープリント記述子から熱伝導率を予測するモデルを構築せよ．ここでは，ランダムフォレスト回帰とニューラルネットワークを用いる．また，訓練データの数やフィンガープリントの種類等を変更し，予測精度の変化を調べて解析結果をまとめよ．\n\n* 演習8）ポリエチレンCCC(=O)Oの単量体，二量体，三量体のSMILES文字列を生成し．ECFP記述子を計算せよ（B=2048,R=2）．\n\n* 演習9）演習8の各ビットの部分構造を描画し，比較せよ．\n\n* 演習10）サンプルデータの10化合物のRDKitの2次元記述子とmordredの2次元記述子を計算せよ．\n\n### 1.3.2\n\nNotebook: [Exercise 11](exercise_11.ipynb)\n\n* 演習11）XenonPy の 58 種類の元素特徴量を抽出せよ．\n\nNotebook: [Exercise 12](exercise_12.ipynb)\n\n* 演習12）サンプルデータの化学組成の記述子を計算せよ．\n\n### 1.4.1\n\nNotebook: [Exercise 13](exercise_13.ipynb)\n\n* 演習13）分子動力学シミュレーションのサンプルデータにある300種類のポリマーの構造物性相関データを用いて，密度，定圧熱容量，熱伝導率，線膨張係数をの予測モデルを構築せよ．以下の説明やサンプルコードを参考にモデルの作成方法を自ら工夫し，その結果を考察せよ．\n\n### 1.4.2\n\nNotebook: [Exercise 14](exercise_14.ipynb)\n\n* 演習14）以下の説明とサンプルコードを参考にして，Materials Project に収録されているデータを用いて，化学組成や結晶構造から形成エネルギー，バンドギャップ，密度を予測するモデルを構築せよ．\n\n### 1.4.3\n\nNotebook: [Exercise 15](exercise_15.ipynb)\n\n* 演習15）以下の説明とサンプルコードを参考に，任意の化学組成が形成する三つの構造クラス（準結晶・近似結晶・通常の周期結晶）を判別するモデルを構築せよ（3 クラス分類問題）．\n\n### 1.5.2\n\nNotebook: [修正中](/)\n\n* 演習16）API を用いて，XenonPy.MDL から組成から形成エネルギーを予測するモデル集合を抽出せよ．\n\n* 演習17）同じく，XenonPy.MDL からポリマーの繰り返し単位の化学構造から誘電率を予測するモデル集合を抽出せよ．\n\n### 1.5.3\n\nNotebook: [Exercise 18](exercise_18.ipynb)\n\n* 演習18）以下の説明やサンプルコードを参考にし，転移学習を適用して無機化合物の格子熱伝導率の予測モデルを構築せよ．\n\n### 1.5.4\n\nNotebook: [Exercise 19](exercise_19.ipynb)\n\n* 演習19）以下の説明とサンプルコードを参考にし，ポリマーと無機化合物の屈折率の間で転移学習を実行せよ．\n\n### 1.6.2\n\nNotebook: [Exercise 20](exercise_20.ipynb)\n\n* 演習20）サンプルコードを実行し，エピガロカテキン(Epigallocatechingallate)に変異・挿入・欠失・伸長の操作を施し，生成される化学構造を可視化せよ.\n\nNotebook: [Exercise 21](exercise_21.ipynb)\n\n* 演習21）サンプルコードを実行し，フラグメントの確率的な組み換えを行い，所望のHOMO（highest occupied molecular orbital），LUMO（lowest unoccupied molecular orbital）を有する分子（有機薄膜太陽電池のドナー分子）を生成せよ．計算のフローについては，Algorithm3を参照せよ．\n\n### 1.7.5\n\nNotebook: [Exercise 22](exercise_22.ipynb)\n\n* 演習22）以下の解説とサンプルコードを参考に，所望の熱伝導率と線膨張係数を持つ高分子のモノマーを設計せよ．物性の目標範囲を変化させて，生成されるモノマーの構造的な違いを考察せよ．\n"
  },
  {
    "path": "mi_book/common_setting.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%matplotlib inline\\n\",\n    \"\\n\",\n    \"import warnings\\n\",\n    \"warnings.filterwarnings(\\\"ignore\\\", message=\\\"numpy.dtype size changed\\\")\\n\",\n    \"warnings.filterwarnings(\\\"ignore\\\", message=\\\"numpy.ufunc size changed\\\")\\n\",\n    \"\\n\",\n    \"# user-friendly print\\n\",\n    \"from IPython.core.interactiveshell import InteractiveShell\\n\",\n    \"InteractiveShell.ast_node_interactivity = \\\"all\\\"\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from itertools import product\\n\",\n    \"\\n\",\n    \"class ConfusionMatrixDisplay:\\n\",\n    \"    \\\"\\\"\\\"Confusion Matrix visualization.\\n\",\n    \"    It is recommend to use :func:`~sklearn.metrics.plot_confusion_matrix` to\\n\",\n    \"    create a :class:`ConfusionMatrixDisplay`. All parameters are stored as\\n\",\n    \"    attributes.\\n\",\n    \"    Read more in the :ref:`User Guide <visualizations>`.\\n\",\n    \"    Parameters\\n\",\n    \"    ----------\\n\",\n    \"    confusion_matrix : ndarray of shape (n_classes, n_classes)\\n\",\n    \"        Confusion matrix.\\n\",\n    \"    display_labels : ndarray of shape (n_classes,)\\n\",\n    \"        Display labels for plot.\\n\",\n    \"    Attributes\\n\",\n    \"    ----------\\n\",\n    \"    im_ : matplotlib AxesImage\\n\",\n    \"        Image representing the confusion matrix.\\n\",\n    \"    text_ : ndarray of shape (n_classes, n_classes), dtype=matplotlib Text, \\\\\\n\",\n    \"            or None\\n\",\n    \"        Array of matplotlib axes. `None` if `include_values` is false.\\n\",\n    \"    ax_ : matplotlib Axes\\n\",\n    \"        Axes with confusion matrix.\\n\",\n    \"    figure_ : matplotlib Figure\\n\",\n    \"        Figure containing the confusion matrix.\\n\",\n    \"    \\\"\\\"\\\"\\n\",\n    \"    def __init__(self, confusion_matrix, display_labels):\\n\",\n    \"        self.confusion_matrix = confusion_matrix\\n\",\n    \"        self.display_labels = display_labels\\n\",\n    \"\\n\",\n    \"    def plot(self, *, include_values=True, cmap='viridis',\\n\",\n    \"             xticks_rotation='horizontal', values_format=None, ax=None, anno_fontsize=14, tick_fontsize=14, label_fontsize=20):\\n\",\n    \"        \\\"\\\"\\\"Plot visualization.\\n\",\n    \"        Parameters\\n\",\n    \"        ----------\\n\",\n    \"        include_values : bool, default=True\\n\",\n    \"            Includes values in confusion matrix.\\n\",\n    \"        cmap : str or matplotlib Colormap, default='viridis'\\n\",\n    \"            Colormap recognized by matplotlib.\\n\",\n    \"        xticks_rotation : {'vertical', 'horizontal'} or float, \\\\\\n\",\n    \"                         default='vertical'\\n\",\n    \"            Rotation of xtick labels.\\n\",\n    \"        values_format : str, default=None\\n\",\n    \"            Format specification for values in confusion matrix. If `None`,\\n\",\n    \"            the format specification is '.2f' for a normalized matrix, and\\n\",\n    \"            'd' for a unnormalized matrix.\\n\",\n    \"        ax : matplotlib axes, default=None\\n\",\n    \"            Axes object to plot on. If `None`, a new figure and axes is\\n\",\n    \"            created.\\n\",\n    \"        Returns\\n\",\n    \"        -------\\n\",\n    \"        display : :class:`~sklearn.metrics.ConfusionMatrixDisplay`\\n\",\n    \"        \\\"\\\"\\\"\\n\",\n    \"        import matplotlib.pyplot as plt\\n\",\n    \"\\n\",\n    \"        if ax is None:\\n\",\n    \"            fig, ax = plt.subplots()\\n\",\n    \"        else:\\n\",\n    \"            fig = ax.figure\\n\",\n    \"\\n\",\n    \"        cm = self.confusion_matrix\\n\",\n    \"        n_classes = cm.shape[0]\\n\",\n    \"        self.im_ = ax.imshow(cm, interpolation='nearest', cmap=cmap)\\n\",\n    \"        self.text_ = None\\n\",\n    \"\\n\",\n    \"        cmap_min, cmap_max = self.im_.cmap(0), self.im_.cmap(256)\\n\",\n    \"\\n\",\n    \"        if include_values:\\n\",\n    \"            self.text_ = np.empty_like(cm, dtype=object)\\n\",\n    \"            if values_format is None:\\n\",\n    \"                values_format = '.2g'\\n\",\n    \"\\n\",\n    \"            # print text with appropriate color depending on background\\n\",\n    \"            thresh = (cm.max() - cm.min()) / 2.\\n\",\n    \"            for i, j in product(range(n_classes), range(n_classes)):\\n\",\n    \"                color = cmap_max if cm[i, j] < thresh else cmap_min\\n\",\n    \"                self.text_[i, j] = ax.text(j, i,\\n\",\n    \"                                           format(cm[i, j], values_format),\\n\",\n    \"                                           ha=\\\"center\\\", va=\\\"center\\\",\\n\",\n    \"                                           color=color, fontsize=anno_fontsize)\\n\",\n    \"\\n\",\n    \"        cbar = fig.colorbar(self.im_, ax=ax)\\n\",\n    \"        cbar.ax.tick_params(labelsize=anno_fontsize) \\n\",\n    \"        ax.set(xticks=np.arange(n_classes),\\n\",\n    \"               yticks=np.arange(n_classes),\\n\",\n    \"               xticklabels=self.display_labels,\\n\",\n    \"               yticklabels=self.display_labels,\\n\",\n    \"               ylabel=\\\"True label\\\",\\n\",\n    \"               xlabel=\\\"Predicted label\\\")\\n\",\n    \"\\n\",\n    \"        ax.set_ylim((n_classes - 0.5, -0.5))\\n\",\n    \"        plt.setp(ax.get_xticklabels(), rotation=xticks_rotation)\\n\",\n    \"\\n\",\n    \"        ax.xaxis.label.set_size(label_fontsize)\\n\",\n    \"        ax.yaxis.label.set_size(label_fontsize)\\n\",\n    \"        ax.tick_params(labelsize=tick_fontsize)\\n\",\n    \"        \\n\",\n    \"        self.figure_ = fig\\n\",\n    \"        self.ax_ = ax\\n\",\n    \"        return self\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 196,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import numpy as np\\n\",\n    \"\\n\",\n    \"import matplotlib.ticker as plticker\\n\",\n    \"\\n\",\n    \"from matplotlib import pyplot as plt\\n\",\n    \"from xenonpy.model.utils import regression_metrics\\n\",\n    \"\\n\",\n    \"def cv_plot(pred, true, pred_fit=None, true_fit=None, *, unit='', lim=None, n_ticks=5, title='', ax=None, color_style=True, show_label=True, show_legend=True, **kwargs):\\n\",\n    \"    pred, true = pred.flatten(), true.flatten()\\n\",\n    \"    scores = regression_metrics(true, pred)\\n\",\n    \"\\n\",\n    \"    if ax is None:\\n\",\n    \"        _, ax = plt.subplots(figsize=(8, 8), dpi=150)\\n\",\n    \"\\n\",\n    \"    if color_style:\\n\",\n    \"        if pred_fit is not None and true_fit is not None:\\n\",\n    \"            ax.scatter(pred_fit, true_fit, alpha=0.4, s=13, marker='D', label='Train', **kwargs)\\n\",\n    \"        ax.scatter(pred, true, alpha=1, s=35, ec='w', marker='o', label='Test', **kwargs)\\n\",\n    \"    else:\\n\",\n    \"        if pred_fit is not None and true_fit is not None:\\n\",\n    \"            ax.scatter(pred_fit, true_fit, alpha=0.6, s=15, ec='grey', c='none', marker='D', label='Train', **kwargs)\\n\",\n    \"        ax.scatter(pred, true, alpha=1, s=35, ec='w', c='k', marker='o', label='Test', **kwargs)\\n\",\n    \"        \\n\",\n    \"    # adjust lims\\n\",\n    \"    if lim is None:\\n\",\n    \"        temp_data = np.concatenate([pred, true]) if pred_fit is None or true_fit is None else np.concatenate([pred, true, pred_fit, true_fit])\\n\",\n    \"        lim = (temp_data.min(), temp_data.max())\\n\",\n    \"        shift = (lim[1] - lim[0]) * 0.05\\n\",\n    \"        lim = (lim[0] - shift, lim[1] + shift)\\n\",\n    \"    ax.set_xlim(*lim)\\n\",\n    \"    ax.set_ylim(*lim)\\n\",\n    \"\\n\",\n    \"    # plot diagonal\\n\",\n    \"    ax.plot(lim, lim, ls=\\\"--\\\", c=\\\"0.3\\\", alpha=0.7, lw=1.5)\\n\",\n    \"    \\n\",\n    \"    # align ticks\\n\",\n    \"    base = round((lim[1] - lim[0]) / n_ticks)\\n\",\n    \"    \\n\",\n    \"    if base > 0:\\n\",\n    \"        loc = plticker.MultipleLocator(base=base) # this locator puts ticks at regular intervals\\n\",\n    \"        ax.xaxis.set_major_locator(loc)\\n\",\n    \"        ax.yaxis.set_major_locator(loc)\\n\",\n    \"    \\n\",\n    \"    if unit != '':\\n\",\n    \"        unit = f' ({unit})'\\n\",\n    \"    if show_label:\\n\",\n    \"        ax.set_xlabel(f'Prediction{unit}', fontsize='x-large')\\n\",\n    \"        ax.set_ylabel(f'Observation{unit}', fontsize='x-large')\\n\",\n    \"    if show_legend:\\n\",\n    \"        legend = ax.legend(markerscale=2.5, fontsize='larger', loc=0)\\n\",\n    \"        for lh in legend.legendHandles:\\n\",\n    \"            lh.set_alpha(1.0)\\n\",\n    \"    ax.grid(color='gray', linestyle='--', linewidth=0.5, alpha=0.5)\\n\",\n    \"    ax.set_title(title, fontsize='xx-large')\\n\",\n    \"    shift = (lim[1] - lim[0]) / 30\\n\",\n    \"    ax.text(lim[1] - shift, lim[0] + shift,\\n\",\n    \"             'R2: %.3f\\\\nMAE: %.3f\\\\nCorrelation: %.3f' % (scores['r2'],scores['mae'],scores['pearsonr']),\\n\",\n    \"             horizontalalignment='right', verticalalignment='bottom', fontsize='x-large',\\n\",\n    \"            bbox=dict(boxstyle='square', facecolor='grey', alpha=0.2, ec='black'),\\n\",\n    \"           )\\n\",\n    \"    ax.tick_params(axis='both', which='major', labelsize='larger')\\n\",\n    \"    return ax\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3 (ipykernel)\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.8.13\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "mi_book/exercise_11.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"<!--\\n\",\n    \" Copyright 2022 TsumiNa\\n\",\n    \" \\n\",\n    \" Licensed under the Apache License, Version 2.0 (the \\\"License\\\");\\n\",\n    \" you may not use this file except in compliance with the License.\\n\",\n    \" You may obtain a copy of the License at\\n\",\n    \" \\n\",\n    \"     http://www.apache.org/licenses/LICENSE-2.0\\n\",\n    \" \\n\",\n    \" Unless required by applicable law or agreed to in writing, software\\n\",\n    \" distributed under the License is distributed on an \\\"AS IS\\\" BASIS,\\n\",\n    \" WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.\\n\",\n    \" See the License for the specific language governing permissions and\\n\",\n    \" limitations under the License.\\n\",\n    \"\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 演習11）\\n\",\n    \"\\n\",\n    \"この演習では，`preset`モジュールを通して，内蔵する５８種類の元素特徴を抽出する．\\n\",\n    \"\\n\",\n    \"`xenonpy.destatools.preset`は`xenonpy`の内臓データとユーザーが指定されたフォルダに置いてあるデータを簡単に読み取るモジュールである．`preset`の他の機能を知りたい場合，サンプルコード [dataset_and_preset](https://nbviewer.org/github/yoshida-lab/XenonPy/blob/master/samples/dataset_and_preset.ipynb) を参考しなさい．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<Preset> includes:\\n\",\n       \"\\\"dataset_elements_completed\\\": /Users/liuchang/.xenonpy/dataset/elements_completed.pd.xz\\n\",\n       \"\\\"dataset_atom_init\\\": /Users/liuchang/.xenonpy/dataset/atom_init.pd.xz\\n\",\n       \"\\\"dataset_elements\\\": /Users/liuchang/.xenonpy/dataset/elements.pd.xz\\n\",\n       \"\\\"mp_structure\\\": /Users/liuchang/.xenonpy/userdata/mp_structure.pd.xz\\n\",\n       \"\\\"mp_inorganic\\\": /Users/liuchang/.xenonpy/userdata/mp_inorganic.pd.xz\\n\",\n       \"\\\"mp_samples\\\": /Users/liuchang/.xenonpy/userdata/mp_samples.pd.xz\"\n      ]\n     },\n     \"execution_count\": 1,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"%run common_setting.ipynb\\n\",\n    \"\\n\",\n    \"from xenonpy.datatools import preset\\n\",\n    \"\\n\",\n    \"preset\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"elems = preset.dataset_elements  # raw data\\n\",\n    \"elems_completed = preset.dataset_elements_completed  # completed data\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"rawデータ（欠損データがある）\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>atomic_number</th>\\n\",\n       \"      <th>atomic_radius</th>\\n\",\n       \"      <th>atomic_radius_rahm</th>\\n\",\n       \"      <th>atomic_volume</th>\\n\",\n       \"      <th>atomic_weight</th>\\n\",\n       \"      <th>boiling_point</th>\\n\",\n       \"      <th>brinell_hardness</th>\\n\",\n       \"      <th>bulk_modulus</th>\\n\",\n       \"      <th>c6</th>\\n\",\n       \"      <th>c6_gb</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>vdw_radius_bondi</th>\\n\",\n       \"      <th>vdw_radius_dreiding</th>\\n\",\n       \"      <th>vdw_radius_mm3</th>\\n\",\n       \"      <th>vdw_radius_rt</th>\\n\",\n       \"      <th>vdw_radius_truhlar</th>\\n\",\n       \"      <th>vdw_radius_uff</th>\\n\",\n       \"      <th>sound_velocity</th>\\n\",\n       \"      <th>vickers_hardness</th>\\n\",\n       \"      <th>Polarizability</th>\\n\",\n       \"      <th>youngs_modulus</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>H</th>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>79.0</td>\\n\",\n       \"      <td>154.0</td>\\n\",\n       \"      <td>14.1</td>\\n\",\n       \"      <td>1.008000</td>\\n\",\n       \"      <td>20.280</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>6.499027</td>\\n\",\n       \"      <td>6.51</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>319.5</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>1270.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>He</th>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>134.0</td>\\n\",\n       \"      <td>31.8</td>\\n\",\n       \"      <td>4.002602</td>\\n\",\n       \"      <td>4.216</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>1.420000</td>\\n\",\n       \"      <td>1.47</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>140.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>153.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>236.2</td>\\n\",\n       \"      <td>970.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>0.205052</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Li</th>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>220.0</td>\\n\",\n       \"      <td>13.1</td>\\n\",\n       \"      <td>6.940000</td>\\n\",\n       \"      <td>1118.150</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>11.0</td>\\n\",\n       \"      <td>1392.000000</td>\\n\",\n       \"      <td>1410.00</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>181.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>255.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>245.1</td>\\n\",\n       \"      <td>6000.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>24.330000</td>\\n\",\n       \"      <td>4.9</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Be</th>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>112.0</td>\\n\",\n       \"      <td>219.0</td>\\n\",\n       \"      <td>5.0</td>\\n\",\n       \"      <td>9.012183</td>\\n\",\n       \"      <td>3243.000</td>\\n\",\n       \"      <td>600.0</td>\\n\",\n       \"      <td>130.0</td>\\n\",\n       \"      <td>227.000000</td>\\n\",\n       \"      <td>214.00</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>223.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>153.0</td>\\n\",\n       \"      <td>274.5</td>\\n\",\n       \"      <td>13000.0</td>\\n\",\n       \"      <td>1670.0</td>\\n\",\n       \"      <td>5.600000</td>\\n\",\n       \"      <td>287.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>B</th>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>98.0</td>\\n\",\n       \"      <td>205.0</td>\\n\",\n       \"      <td>4.6</td>\\n\",\n       \"      <td>10.810000</td>\\n\",\n       \"      <td>3931.000</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>320.0</td>\\n\",\n       \"      <td>99.500000</td>\\n\",\n       \"      <td>99.20</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>402.0</td>\\n\",\n       \"      <td>215.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>192.0</td>\\n\",\n       \"      <td>408.3</td>\\n\",\n       \"      <td>16200.0</td>\\n\",\n       \"      <td>49000.0</td>\\n\",\n       \"      <td>3.030000</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Fl</th>\\n\",\n       \"      <td>114</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>289.000000</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Mc</th>\\n\",\n       \"      <td>115</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>288.000000</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Lv</th>\\n\",\n       \"      <td>116</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>293.000000</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Ts</th>\\n\",\n       \"      <td>117</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>294.000000</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Og</th>\\n\",\n       \"      <td>118</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>294.000000</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>118 rows × 74 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"    atomic_number  atomic_radius  atomic_radius_rahm  atomic_volume  \\\\\\n\",\n       \"H               1           79.0               154.0           14.1   \\n\",\n       \"He              2            NaN               134.0           31.8   \\n\",\n       \"Li              3          155.0               220.0           13.1   \\n\",\n       \"Be              4          112.0               219.0            5.0   \\n\",\n       \"B               5           98.0               205.0            4.6   \\n\",\n       \"..            ...            ...                 ...            ...   \\n\",\n       \"Fl            114            NaN                 NaN            NaN   \\n\",\n       \"Mc            115            NaN                 NaN            NaN   \\n\",\n       \"Lv            116            NaN                 NaN            NaN   \\n\",\n       \"Ts            117            NaN                 NaN            NaN   \\n\",\n       \"Og            118            NaN                 NaN            NaN   \\n\",\n       \"\\n\",\n       \"    atomic_weight  boiling_point  brinell_hardness  bulk_modulus           c6  \\\\\\n\",\n       \"H        1.008000         20.280               NaN           NaN     6.499027   \\n\",\n       \"He       4.002602          4.216               NaN           NaN     1.420000   \\n\",\n       \"Li       6.940000       1118.150               NaN          11.0  1392.000000   \\n\",\n       \"Be       9.012183       3243.000             600.0         130.0   227.000000   \\n\",\n       \"B       10.810000       3931.000               NaN         320.0    99.500000   \\n\",\n       \"..            ...            ...               ...           ...          ...   \\n\",\n       \"Fl     289.000000            NaN               NaN           NaN          NaN   \\n\",\n       \"Mc     288.000000            NaN               NaN           NaN          NaN   \\n\",\n       \"Lv     293.000000            NaN               NaN           NaN          NaN   \\n\",\n       \"Ts     294.000000            NaN               NaN           NaN          NaN   \\n\",\n       \"Og     294.000000            NaN               NaN           NaN          NaN   \\n\",\n       \"\\n\",\n       \"      c6_gb  ...  vdw_radius_bondi  vdw_radius_dreiding  vdw_radius_mm3  \\\\\\n\",\n       \"H      6.51  ...             120.0                319.5           162.0   \\n\",\n       \"He     1.47  ...             140.0                  NaN           153.0   \\n\",\n       \"Li  1410.00  ...             181.0                  NaN           255.0   \\n\",\n       \"Be   214.00  ...               NaN                  NaN           223.0   \\n\",\n       \"B     99.20  ...               NaN                402.0           215.0   \\n\",\n       \"..      ...  ...               ...                  ...             ...   \\n\",\n       \"Fl      NaN  ...               NaN                  NaN             NaN   \\n\",\n       \"Mc      NaN  ...               NaN                  NaN             NaN   \\n\",\n       \"Lv      NaN  ...               NaN                  NaN             NaN   \\n\",\n       \"Ts      NaN  ...               NaN                  NaN             NaN   \\n\",\n       \"Og      NaN  ...               NaN                  NaN             NaN   \\n\",\n       \"\\n\",\n       \"    vdw_radius_rt  vdw_radius_truhlar  vdw_radius_uff  sound_velocity  \\\\\\n\",\n       \"H           110.0                 NaN           288.6          1270.0   \\n\",\n       \"He            NaN                 NaN           236.2           970.0   \\n\",\n       \"Li            NaN                 NaN           245.1          6000.0   \\n\",\n       \"Be            NaN               153.0           274.5         13000.0   \\n\",\n       \"B             NaN               192.0           408.3         16200.0   \\n\",\n       \"..            ...                 ...             ...             ...   \\n\",\n       \"Fl            NaN                 NaN             NaN             NaN   \\n\",\n       \"Mc            NaN                 NaN             NaN             NaN   \\n\",\n       \"Lv            NaN                 NaN             NaN             NaN   \\n\",\n       \"Ts            NaN                 NaN             NaN             NaN   \\n\",\n       \"Og            NaN                 NaN             NaN             NaN   \\n\",\n       \"\\n\",\n       \"    vickers_hardness  Polarizability  youngs_modulus  \\n\",\n       \"H                NaN        0.666793             NaN  \\n\",\n       \"He               NaN        0.205052             NaN  \\n\",\n       \"Li               NaN       24.330000             4.9  \\n\",\n       \"Be            1670.0        5.600000           287.0  \\n\",\n       \"B            49000.0        3.030000             NaN  \\n\",\n       \"..               ...             ...             ...  \\n\",\n       \"Fl               NaN             NaN             NaN  \\n\",\n       \"Mc               NaN             NaN             NaN  \\n\",\n       \"Lv               NaN             NaN             NaN  \\n\",\n       \"Ts               NaN             NaN             NaN  \\n\",\n       \"Og               NaN             NaN             NaN  \\n\",\n       \"\\n\",\n       \"[118 rows x 74 columns]\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"elems\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"連鎖方程式による多重代入法でデータを補完（multivariate imputation by chained equations; MICE）\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>atomic_number</th>\\n\",\n       \"      <th>atomic_radius</th>\\n\",\n       \"      <th>atomic_radius_rahm</th>\\n\",\n       \"      <th>atomic_volume</th>\\n\",\n       \"      <th>atomic_weight</th>\\n\",\n       \"      <th>boiling_point</th>\\n\",\n       \"      <th>bulk_modulus</th>\\n\",\n       \"      <th>c6_gb</th>\\n\",\n       \"      <th>covalent_radius_cordero</th>\\n\",\n       \"      <th>covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>num_s_valence</th>\\n\",\n       \"      <th>period</th>\\n\",\n       \"      <th>specific_heat</th>\\n\",\n       \"      <th>thermal_conductivity</th>\\n\",\n       \"      <th>vdw_radius</th>\\n\",\n       \"      <th>vdw_radius_alvarez</th>\\n\",\n       \"      <th>vdw_radius_mm3</th>\\n\",\n       \"      <th>vdw_radius_uff</th>\\n\",\n       \"      <th>sound_velocity</th>\\n\",\n       \"      <th>Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>H</th>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>79.000000</td>\\n\",\n       \"      <td>154.0</td>\\n\",\n       \"      <td>14.100000</td>\\n\",\n       \"      <td>1.008000</td>\\n\",\n       \"      <td>20.280</td>\\n\",\n       \"      <td>56.799640</td>\\n\",\n       \"      <td>6.510000</td>\\n\",\n       \"      <td>31.0</td>\\n\",\n       \"      <td>32.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.122728</td>\\n\",\n       \"      <td>0.1805</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>1270.000000</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>He</th>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>147.832643</td>\\n\",\n       \"      <td>134.0</td>\\n\",\n       \"      <td>31.800000</td>\\n\",\n       \"      <td>4.002602</td>\\n\",\n       \"      <td>4.216</td>\\n\",\n       \"      <td>85.106630</td>\\n\",\n       \"      <td>1.470000</td>\\n\",\n       \"      <td>28.0</td>\\n\",\n       \"      <td>46.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>5.188000</td>\\n\",\n       \"      <td>0.1513</td>\\n\",\n       \"      <td>140.0</td>\\n\",\n       \"      <td>143.0</td>\\n\",\n       \"      <td>153.0</td>\\n\",\n       \"      <td>236.2</td>\\n\",\n       \"      <td>970.000000</td>\\n\",\n       \"      <td>0.205052</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Li</th>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>155.000000</td>\\n\",\n       \"      <td>220.0</td>\\n\",\n       \"      <td>13.100000</td>\\n\",\n       \"      <td>6.940000</td>\\n\",\n       \"      <td>1118.150</td>\\n\",\n       \"      <td>11.000000</td>\\n\",\n       \"      <td>1410.000000</td>\\n\",\n       \"      <td>128.0</td>\\n\",\n       \"      <td>133.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>3.489000</td>\\n\",\n       \"      <td>85.0000</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>212.0</td>\\n\",\n       \"      <td>255.0</td>\\n\",\n       \"      <td>245.1</td>\\n\",\n       \"      <td>6000.000000</td>\\n\",\n       \"      <td>24.330000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Be</th>\\n\",\n       \"      <td>4.0</td>\\n\",\n       \"      <td>112.000000</td>\\n\",\n       \"      <td>219.0</td>\\n\",\n       \"      <td>5.000000</td>\\n\",\n       \"      <td>9.012183</td>\\n\",\n       \"      <td>3243.000</td>\\n\",\n       \"      <td>130.000000</td>\\n\",\n       \"      <td>214.000000</td>\\n\",\n       \"      <td>96.0</td>\\n\",\n       \"      <td>102.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>1.824000</td>\\n\",\n       \"      <td>190.0000</td>\\n\",\n       \"      <td>153.0</td>\\n\",\n       \"      <td>198.0</td>\\n\",\n       \"      <td>223.0</td>\\n\",\n       \"      <td>274.5</td>\\n\",\n       \"      <td>13000.000000</td>\\n\",\n       \"      <td>5.600000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>B</th>\\n\",\n       \"      <td>5.0</td>\\n\",\n       \"      <td>98.000000</td>\\n\",\n       \"      <td>205.0</td>\\n\",\n       \"      <td>4.600000</td>\\n\",\n       \"      <td>10.810000</td>\\n\",\n       \"      <td>3931.000</td>\\n\",\n       \"      <td>320.000000</td>\\n\",\n       \"      <td>99.200000</td>\\n\",\n       \"      <td>84.0</td>\\n\",\n       \"      <td>85.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>1.025000</td>\\n\",\n       \"      <td>27.0000</td>\\n\",\n       \"      <td>192.0</td>\\n\",\n       \"      <td>191.0</td>\\n\",\n       \"      <td>215.0</td>\\n\",\n       \"      <td>408.3</td>\\n\",\n       \"      <td>16200.000000</td>\\n\",\n       \"      <td>3.030000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Th</th>\\n\",\n       \"      <td>90.0</td>\\n\",\n       \"      <td>180.000000</td>\\n\",\n       \"      <td>289.0</td>\\n\",\n       \"      <td>19.800000</td>\\n\",\n       \"      <td>232.037700</td>\\n\",\n       \"      <td>5060.000</td>\\n\",\n       \"      <td>54.000000</td>\\n\",\n       \"      <td>2513.278129</td>\\n\",\n       \"      <td>206.0</td>\\n\",\n       \"      <td>175.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>7.0</td>\\n\",\n       \"      <td>0.113000</td>\\n\",\n       \"      <td>54.0000</td>\\n\",\n       \"      <td>245.0</td>\\n\",\n       \"      <td>293.0</td>\\n\",\n       \"      <td>274.0</td>\\n\",\n       \"      <td>339.6</td>\\n\",\n       \"      <td>2490.000000</td>\\n\",\n       \"      <td>32.100000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Pa</th>\\n\",\n       \"      <td>91.0</td>\\n\",\n       \"      <td>161.000000</td>\\n\",\n       \"      <td>285.0</td>\\n\",\n       \"      <td>15.000000</td>\\n\",\n       \"      <td>231.035880</td>\\n\",\n       \"      <td>4300.000</td>\\n\",\n       \"      <td>145.399684</td>\\n\",\n       \"      <td>2039.299326</td>\\n\",\n       \"      <td>200.0</td>\\n\",\n       \"      <td>169.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>7.0</td>\\n\",\n       \"      <td>0.121000</td>\\n\",\n       \"      <td>47.0000</td>\\n\",\n       \"      <td>243.0</td>\\n\",\n       \"      <td>288.0</td>\\n\",\n       \"      <td>264.0</td>\\n\",\n       \"      <td>342.4</td>\\n\",\n       \"      <td>5621.547555</td>\\n\",\n       \"      <td>25.400000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>U</th>\\n\",\n       \"      <td>92.0</td>\\n\",\n       \"      <td>138.000000</td>\\n\",\n       \"      <td>283.0</td>\\n\",\n       \"      <td>12.500000</td>\\n\",\n       \"      <td>238.028910</td>\\n\",\n       \"      <td>4018.000</td>\\n\",\n       \"      <td>100.000000</td>\\n\",\n       \"      <td>2491.292580</td>\\n\",\n       \"      <td>196.0</td>\\n\",\n       \"      <td>170.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>7.0</td>\\n\",\n       \"      <td>0.115000</td>\\n\",\n       \"      <td>27.0000</td>\\n\",\n       \"      <td>241.0</td>\\n\",\n       \"      <td>271.0</td>\\n\",\n       \"      <td>252.0</td>\\n\",\n       \"      <td>339.5</td>\\n\",\n       \"      <td>3155.000000</td>\\n\",\n       \"      <td>24.900000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Np</th>\\n\",\n       \"      <td>93.0</td>\\n\",\n       \"      <td>130.000000</td>\\n\",\n       \"      <td>280.0</td>\\n\",\n       \"      <td>21.100000</td>\\n\",\n       \"      <td>237.000000</td>\\n\",\n       \"      <td>4175.000</td>\\n\",\n       \"      <td>124.101714</td>\\n\",\n       \"      <td>2398.576467</td>\\n\",\n       \"      <td>190.0</td>\\n\",\n       \"      <td>171.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>7.0</td>\\n\",\n       \"      <td>0.543388</td>\\n\",\n       \"      <td>6.0000</td>\\n\",\n       \"      <td>239.0</td>\\n\",\n       \"      <td>282.0</td>\\n\",\n       \"      <td>252.0</td>\\n\",\n       \"      <td>342.4</td>\\n\",\n       \"      <td>2999.089592</td>\\n\",\n       \"      <td>24.800000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Pu</th>\\n\",\n       \"      <td>94.0</td>\\n\",\n       \"      <td>151.000000</td>\\n\",\n       \"      <td>278.0</td>\\n\",\n       \"      <td>21.156594</td>\\n\",\n       \"      <td>244.000000</td>\\n\",\n       \"      <td>3505.000</td>\\n\",\n       \"      <td>90.470938</td>\\n\",\n       \"      <td>2294.423315</td>\\n\",\n       \"      <td>187.0</td>\\n\",\n       \"      <td>172.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>7.0</td>\\n\",\n       \"      <td>0.646077</td>\\n\",\n       \"      <td>6.0000</td>\\n\",\n       \"      <td>243.0</td>\\n\",\n       \"      <td>281.0</td>\\n\",\n       \"      <td>252.0</td>\\n\",\n       \"      <td>342.4</td>\\n\",\n       \"      <td>2260.000000</td>\\n\",\n       \"      <td>24.500000</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>94 rows × 58 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"    atomic_number  atomic_radius  atomic_radius_rahm  atomic_volume  \\\\\\n\",\n       \"H             1.0      79.000000               154.0      14.100000   \\n\",\n       \"He            2.0     147.832643               134.0      31.800000   \\n\",\n       \"Li            3.0     155.000000               220.0      13.100000   \\n\",\n       \"Be            4.0     112.000000               219.0       5.000000   \\n\",\n       \"B             5.0      98.000000               205.0       4.600000   \\n\",\n       \"..            ...            ...                 ...            ...   \\n\",\n       \"Th           90.0     180.000000               289.0      19.800000   \\n\",\n       \"Pa           91.0     161.000000               285.0      15.000000   \\n\",\n       \"U            92.0     138.000000               283.0      12.500000   \\n\",\n       \"Np           93.0     130.000000               280.0      21.100000   \\n\",\n       \"Pu           94.0     151.000000               278.0      21.156594   \\n\",\n       \"\\n\",\n       \"    atomic_weight  boiling_point  bulk_modulus        c6_gb  \\\\\\n\",\n       \"H        1.008000         20.280     56.799640     6.510000   \\n\",\n       \"He       4.002602          4.216     85.106630     1.470000   \\n\",\n       \"Li       6.940000       1118.150     11.000000  1410.000000   \\n\",\n       \"Be       9.012183       3243.000    130.000000   214.000000   \\n\",\n       \"B       10.810000       3931.000    320.000000    99.200000   \\n\",\n       \"..            ...            ...           ...          ...   \\n\",\n       \"Th     232.037700       5060.000     54.000000  2513.278129   \\n\",\n       \"Pa     231.035880       4300.000    145.399684  2039.299326   \\n\",\n       \"U      238.028910       4018.000    100.000000  2491.292580   \\n\",\n       \"Np     237.000000       4175.000    124.101714  2398.576467   \\n\",\n       \"Pu     244.000000       3505.000     90.470938  2294.423315   \\n\",\n       \"\\n\",\n       \"    covalent_radius_cordero  covalent_radius_pyykko  ...  num_s_valence  \\\\\\n\",\n       \"H                      31.0                    32.0  ...            1.0   \\n\",\n       \"He                     28.0                    46.0  ...            2.0   \\n\",\n       \"Li                    128.0                   133.0  ...            1.0   \\n\",\n       \"Be                     96.0                   102.0  ...            2.0   \\n\",\n       \"B                      84.0                    85.0  ...            2.0   \\n\",\n       \"..                      ...                     ...  ...            ...   \\n\",\n       \"Th                    206.0                   175.0  ...            2.0   \\n\",\n       \"Pa                    200.0                   169.0  ...            2.0   \\n\",\n       \"U                     196.0                   170.0  ...            2.0   \\n\",\n       \"Np                    190.0                   171.0  ...            2.0   \\n\",\n       \"Pu                    187.0                   172.0  ...            2.0   \\n\",\n       \"\\n\",\n       \"    period  specific_heat  thermal_conductivity  vdw_radius  \\\\\\n\",\n       \"H      1.0       1.122728                0.1805       110.0   \\n\",\n       \"He     1.0       5.188000                0.1513       140.0   \\n\",\n       \"Li     2.0       3.489000               85.0000       182.0   \\n\",\n       \"Be     2.0       1.824000              190.0000       153.0   \\n\",\n       \"B      2.0       1.025000               27.0000       192.0   \\n\",\n       \"..     ...            ...                   ...         ...   \\n\",\n       \"Th     7.0       0.113000               54.0000       245.0   \\n\",\n       \"Pa     7.0       0.121000               47.0000       243.0   \\n\",\n       \"U      7.0       0.115000               27.0000       241.0   \\n\",\n       \"Np     7.0       0.543388                6.0000       239.0   \\n\",\n       \"Pu     7.0       0.646077                6.0000       243.0   \\n\",\n       \"\\n\",\n       \"    vdw_radius_alvarez  vdw_radius_mm3  vdw_radius_uff  sound_velocity  \\\\\\n\",\n       \"H                120.0           162.0           288.6     1270.000000   \\n\",\n       \"He               143.0           153.0           236.2      970.000000   \\n\",\n       \"Li               212.0           255.0           245.1     6000.000000   \\n\",\n       \"Be               198.0           223.0           274.5    13000.000000   \\n\",\n       \"B                191.0           215.0           408.3    16200.000000   \\n\",\n       \"..                 ...             ...             ...             ...   \\n\",\n       \"Th               293.0           274.0           339.6     2490.000000   \\n\",\n       \"Pa               288.0           264.0           342.4     5621.547555   \\n\",\n       \"U                271.0           252.0           339.5     3155.000000   \\n\",\n       \"Np               282.0           252.0           342.4     2999.089592   \\n\",\n       \"Pu               281.0           252.0           342.4     2260.000000   \\n\",\n       \"\\n\",\n       \"    Polarizability  \\n\",\n       \"H         0.666793  \\n\",\n       \"He        0.205052  \\n\",\n       \"Li       24.330000  \\n\",\n       \"Be        5.600000  \\n\",\n       \"B         3.030000  \\n\",\n       \"..             ...  \\n\",\n       \"Th       32.100000  \\n\",\n       \"Pa       25.400000  \\n\",\n       \"U        24.900000  \\n\",\n       \"Np       24.800000  \\n\",\n       \"Pu       24.500000  \\n\",\n       \"\\n\",\n       \"[94 rows x 58 columns]\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"elems_completed\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"ご覧の通り，内臓データは `pandas.DataFrame` の型で保存されている．\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 可視化\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Mix-Max スケーリング\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import pandas as pd\\n\",\n    \"from sklearn.preprocessing import MinMaxScaler \\n\",\n    \"\\n\",\n    \"scaler = MinMaxScaler()\\n\",\n    \"\\n\",\n    \"elems = pd.DataFrame(scaler.fit_transform(elems), index=elems.index, columns=elems.columns)\\n\",\n    \"elems_completed = pd.DataFrame(scaler.fit_transform(elems_completed), index=elems_completed.index, columns=elems_completed.columns)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Heatmapを描く\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 1950x750 with 2 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"import seaborn as sns\\n\",\n    \"import numpy as np\\n\",\n    \"\\n\",\n    \"from matplotlib import cm as cm\\n\",\n    \"from matplotlib import pyplot as plt\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"fig, (ax1, ax2) = plt.subplots(1, 2, figsize=(13, 5), dpi=150)\\n\",\n    \"plt.rcParams['hatch.linewidth'] = 0.05\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"ax1 = sns.heatmap(elems, ax=ax1, cmap=cm.GnBu_r, linecolor='k', linewidths=0.05, xticklabels=True, yticklabels=True, cbar=False, antialiased=True)\\n\",\n    \"ax1.tick_params(axis='x', labelsize=35 / np.sqrt(len(elems)), size=2, width=.5)\\n\",\n    \"ax1.tick_params(axis='y', labelsize=35 / np.sqrt(len(elems)), size=2, width=.5)\\n\",\n    \"\\n\",\n    \"ax2 = sns.heatmap(elems_completed, ax=ax2, cmap=cm.GnBu_r, linecolor='k', linewidths=0.05, xticklabels=True, yticklabels=True, cbar=False, antialiased=True)\\n\",\n    \"ax2.tick_params(axis='x', labelsize=35 / np.sqrt(len(elems_completed)), size=2, width=.5)\\n\",\n    \"ax2.tick_params(axis='y', labelsize=35 / np.sqrt(len(elems_completed)), size=2, width=.5)\\n\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"interpreter\": {\n   \"hash\": \"93169193031bed5a34de5405a805c1cdfe217db623a6098111020ecff952ad9d\"\n  },\n  \"kernelspec\": {\n   \"display_name\": \"Python 3.8.13 ('xepy38')\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.8.13\"\n  },\n  \"orig_nbformat\": 4\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 2\n}\n"
  },
  {
    "path": "mi_book/exercise_12.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 演習12）\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"この演習では，`xenonpy.descriptor.Composition`モジュールを利用して，化学式から記述子を計算する．\\n\",\n    \"\\n\",\n    \"`xenonpy.descriptor`の下に様々な記述子計算モジュールを用意してある．サンプルコード[calculate_descriptors](https://nbviewer.org/github/yoshida-lab/XenonPy/blob/master/samples/calculate_descriptors.ipynb)と[custom_descriptor_calculator](https://nbviewer.org/github/yoshida-lab/XenonPy/blob/master/samples/custom_descriptor_calculator.ipynb)を参考して，モジュールの構成・使い方を詳しく理解できる．\\n\",\n    \"\\n\",\n    \"この演習は一定数の化学式が必要になる．[retrieve_materials_project](https://nbviewer.org/github/yoshida-lab/XenonPy/blob/master/MI_Book/retrieve_materials_project.ipynb)を参考してサンプルデータを用意せよ．\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### サンプルデータをロードする\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"<class 'pandas.core.frame.DataFrame'>\\n\",\n      \"Index: 2000 entries, mp-1013558 to mp-998778\\n\",\n      \"Data columns (total 11 columns):\\n\",\n      \" #   Column                     Non-Null Count  Dtype  \\n\",\n      \"---  ------                     --------------  -----  \\n\",\n      \" 0   band_gap                   2000 non-null   float64\\n\",\n      \" 1   composition                2000 non-null   object \\n\",\n      \" 2   density                    2000 non-null   float64\\n\",\n      \" 3   e_above_hull               2000 non-null   int64  \\n\",\n      \" 4   efermi                     1992 non-null   float64\\n\",\n      \" 5   elements                   2000 non-null   object \\n\",\n      \" 6   final_energy_per_atom      2000 non-null   float64\\n\",\n      \" 7   formation_energy_per_atom  2000 non-null   float64\\n\",\n      \" 8   pretty_formula             2000 non-null   object \\n\",\n      \" 9   structure                  2000 non-null   object \\n\",\n      \" 10  volume                     2000 non-null   float64\\n\",\n      \"dtypes: float64(6), int64(1), object(4)\\n\",\n      \"memory usage: 187.5+ KB\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%run common_setting.ipynb\\n\",\n    \"\\n\",\n    \"from xenonpy.datatools import preset\\n\",\n    \"\\n\",\n    \"samples = preset.mp_samples\\n\",\n    \"\\n\",\n    \"samples.head()\\n\",\n    \"samples.info()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 組成記述子を計算する\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"\\u001b[0;31mInit signature:\\u001b[0m\\n\",\n      \"\\u001b[0mCompositions\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m*\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m    \\u001b[0melemental_info\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mpandas\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mcore\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mframe\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mDataFrame\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m    \\u001b[0mn_jobs\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mint\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;34m-\\u001b[0m\\u001b[0;36m1\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m    \\u001b[0mfeaturizers\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mstr\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mList\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mstr\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;34m'classic'\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m    \\u001b[0mon_errors\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mstr\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;34m'nan'\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n      \"\\u001b[0;31mDocstring:\\u001b[0m      Calculate elemental descriptors from compound's composition.\\n\",\n      \"\\u001b[0;31mInit docstring:\\u001b[0m\\n\",\n      \"Parameters\\n\",\n      \"----------\\n\",\n      \"elemental_info\\n\",\n      \"    Elemental level information for each element. For example, the ``atomic number``,\\n\",\n      \"    ``atomic radius``, and etc. By default (``None``), will use the XenonPy embedded information.\\n\",\n      \"n_jobs: int\\n\",\n      \"    The number of jobs to run in parallel for both fit and predict.\\n\",\n      \"    Set -1 to use all cpu cores (default).\\n\",\n      \"    Inputs ``X`` will be split into some blocks then run on each cpu cores.\\n\",\n      \"featurizers: Union[str, List[str]]\\n\",\n      \"    Name of featurizers that will be used.\\n\",\n      \"    Set to `classic` to be compatible with the old version.\\n\",\n      \"    This is equal to set ``featurizers=['WeightedAverage', 'WeightedSum',\\n\",\n      \"    'WeightedVariance', 'MaxPooling', 'MinPooling']``.\\n\",\n      \"    Default is 'all'.\\n\",\n      \"on_errors: string\\n\",\n      \"    How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\\n\",\n      \"    When 'nan', return a column with ``np.nan``.\\n\",\n      \"    The length of column corresponding to the number of feature labs.\\n\",\n      \"    When 'keep', return a column with exception objects.\\n\",\n      \"    The default is 'nan' which will raise up the exception.\\n\",\n      \"\\u001b[0;31mFile:\\u001b[0m           ~/mambaforge/envs/xepy38/lib/python3.8/site-packages/xenonpy/descriptor/compositions.py\\n\",\n      \"\\u001b[0;31mType:\\u001b[0m           TimedMetaClass\\n\",\n      \"\\u001b[0;31mSubclasses:\\u001b[0m     \\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import Compositions\\n\",\n    \"\\n\",\n    \"cal = Compositions()\\n\",\n    \"Compositions?\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"`cal`オブジェクトの`transform`関数を使って，組成記述子を計算できる．インプットは化学組成のリストで，組成式は二つのデータタイプが存在する．\\n\",\n    \"\\n\",\n    \"1. Python `dict`．例えば，`H2O`を`{'H': 2, 'O': 1}`のように書く．\\n\",\n    \"2. `pymatgen.core.Composition` オブジェクト．例えば， `Composition(\\\"H2O\\\")`のように変換する．\\n\",\n    \"\\n\",\n    \"これからは，サンプルデータの中にある化合物の`composition`情報を用いて，記述子を計算する．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"mp-1013558                     {'Ca': 3.0, 'Bi': 1.0, 'P': 1.0}\\n\",\n       \"mp-1018025                     {'Lu': 1.0, 'Ag': 1.0, 'O': 2.0}\\n\",\n       \"mp-1019105                     {'K': 2.0, 'Mg': 2.0, 'Bi': 2.0}\\n\",\n       \"mp-1020108    {'Li': 2.0, 'Ca': 2.0, 'Mg': 2.0, 'Si': 2.0, '...\\n\",\n       \"mp-1029828                    {'Rb': 8.0, 'Cr': 8.0, 'N': 16.0}\\n\",\n       \"                                    ...                        \\n\",\n       \"mp-976578                                {'Nd': 6.0, 'H': 18.0}\\n\",\n       \"mp-9856                       {'Cs': 4.0, 'Zr': 2.0, 'Se': 6.0}\\n\",\n       \"mp-985829                                 {'Hf': 1.0, 'S': 2.0}\\n\",\n       \"mp-989541           {'Rb': 2.0, 'Na': 1.0, 'Sb': 1.0, 'F': 6.0}\\n\",\n       \"mp-998778                    {'Rb': 4.0, 'Sn': 4.0, 'Br': 12.0}\\n\",\n       \"Name: composition, Length: 2000, dtype: object\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"samples.composition\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1013558</th>\\n\",\n       \"      <td>31.60</td>\\n\",\n       \"      <td>177.800000</td>\\n\",\n       \"      <td>256.600000</td>\\n\",\n       \"      <td>25.600000</td>\\n\",\n       \"      <td>72.037632</td>\\n\",\n       \"      <td>1541.400</td>\\n\",\n       \"      <td>18.600000</td>\\n\",\n       \"      <td>1478.000000</td>\\n\",\n       \"      <td>156.600000</td>\\n\",\n       \"      <td>155.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.124</td>\\n\",\n       \"      <td>0.23600</td>\\n\",\n       \"      <td>180.0</td>\\n\",\n       \"      <td>190.0</td>\\n\",\n       \"      <td>222.0</td>\\n\",\n       \"      <td>339.9</td>\\n\",\n       \"      <td>1790.0</td>\\n\",\n       \"      <td>3.630</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1018025</th>\\n\",\n       \"      <td>33.50</td>\\n\",\n       \"      <td>152.850710</td>\\n\",\n       \"      <td>209.250000</td>\\n\",\n       \"      <td>14.025000</td>\\n\",\n       \"      <td>78.708250</td>\\n\",\n       \"      <td>1583.345</td>\\n\",\n       \"      <td>75.053020</td>\\n\",\n       \"      <td>598.600000</td>\\n\",\n       \"      <td>116.000000</td>\\n\",\n       \"      <td>104.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.155</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>314.8</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1019105</th>\\n\",\n       \"      <td>38.00</td>\\n\",\n       \"      <td>188.333333</td>\\n\",\n       \"      <td>241.333333</td>\\n\",\n       \"      <td>26.866667</td>\\n\",\n       \"      <td>90.794567</td>\\n\",\n       \"      <td>1431.000</td>\\n\",\n       \"      <td>26.366667</td>\\n\",\n       \"      <td>1684.000000</td>\\n\",\n       \"      <td>164.000000</td>\\n\",\n       \"      <td>162.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.124</td>\\n\",\n       \"      <td>8.00000</td>\\n\",\n       \"      <td>173.0</td>\\n\",\n       \"      <td>251.0</td>\\n\",\n       \"      <td>243.0</td>\\n\",\n       \"      <td>302.1</td>\\n\",\n       \"      <td>1790.0</td>\\n\",\n       \"      <td>7.400</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1020108</th>\\n\",\n       \"      <td>10.00</td>\\n\",\n       \"      <td>131.428571</td>\\n\",\n       \"      <td>214.142857</td>\\n\",\n       \"      <td>17.285714</td>\\n\",\n       \"      <td>20.204143</td>\\n\",\n       \"      <td>1014.050</td>\\n\",\n       \"      <td>49.299236</td>\\n\",\n       \"      <td>664.871429</td>\\n\",\n       \"      <td>109.857143</td>\\n\",\n       \"      <td>110.285714</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.653</td>\\n\",\n       \"      <td>0.02583</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>166.0</td>\\n\",\n       \"      <td>193.0</td>\\n\",\n       \"      <td>245.1</td>\\n\",\n       \"      <td>333.6</td>\\n\",\n       \"      <td>1.100</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1029828</th>\\n\",\n       \"      <td>18.75</td>\\n\",\n       \"      <td>140.500000</td>\\n\",\n       \"      <td>207.750000</td>\\n\",\n       \"      <td>24.432500</td>\\n\",\n       \"      <td>41.369475</td>\\n\",\n       \"      <td>1015.200</td>\\n\",\n       \"      <td>69.307441</td>\\n\",\n       \"      <td>1355.100000</td>\\n\",\n       \"      <td>125.250000</td>\\n\",\n       \"      <td>118.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.360</td>\\n\",\n       \"      <td>0.02583</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>166.0</td>\\n\",\n       \"      <td>193.0</td>\\n\",\n       \"      <td>302.3</td>\\n\",\n       \"      <td>333.6</td>\\n\",\n       \"      <td>1.100</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>5 rows × 290 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-1013558              31.60         177.800000              256.600000   \\n\",\n       \"mp-1018025              33.50         152.850710              209.250000   \\n\",\n       \"mp-1019105              38.00         188.333333              241.333333   \\n\",\n       \"mp-1020108              10.00         131.428571              214.142857   \\n\",\n       \"mp-1029828              18.75         140.500000              207.750000   \\n\",\n       \"\\n\",\n       \"            ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-1013558          25.600000          72.037632           1541.400   \\n\",\n       \"mp-1018025          14.025000          78.708250           1583.345   \\n\",\n       \"mp-1019105          26.866667          90.794567           1431.000   \\n\",\n       \"mp-1020108          17.285714          20.204143           1014.050   \\n\",\n       \"mp-1029828          24.432500          41.369475           1015.200   \\n\",\n       \"\\n\",\n       \"            ave:bulk_modulus    ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-1013558         18.600000  1478.000000                   156.600000   \\n\",\n       \"mp-1018025         75.053020   598.600000                   116.000000   \\n\",\n       \"mp-1019105         26.366667  1684.000000                   164.000000   \\n\",\n       \"mp-1020108         49.299236   664.871429                   109.857143   \\n\",\n       \"mp-1029828         69.307441  1355.100000                   125.250000   \\n\",\n       \"\\n\",\n       \"            ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"mp-1013558                  155.000000  ...                2.0         3.0   \\n\",\n       \"mp-1018025                  104.000000  ...                1.0         2.0   \\n\",\n       \"mp-1019105                  162.000000  ...                1.0         3.0   \\n\",\n       \"mp-1020108                  110.285714  ...                1.0         2.0   \\n\",\n       \"mp-1029828                  118.500000  ...                1.0         2.0   \\n\",\n       \"\\n\",\n       \"            min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"mp-1013558              0.124                   0.23600           180.0   \\n\",\n       \"mp-1018025              0.155                   0.02658           152.0   \\n\",\n       \"mp-1019105              0.124                   8.00000           173.0   \\n\",\n       \"mp-1020108              0.653                   0.02583           155.0   \\n\",\n       \"mp-1029828              0.360                   0.02583           155.0   \\n\",\n       \"\\n\",\n       \"            min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"mp-1013558                   190.0               222.0               339.9   \\n\",\n       \"mp-1018025                   150.0               182.0               314.8   \\n\",\n       \"mp-1019105                   251.0               243.0               302.1   \\n\",\n       \"mp-1020108                   166.0               193.0               245.1   \\n\",\n       \"mp-1029828                   166.0               193.0               302.3   \\n\",\n       \"\\n\",\n       \"            min:sound_velocity  min:Polarizability  \\n\",\n       \"mp-1013558              1790.0               3.630  \\n\",\n       \"mp-1018025               317.5               0.802  \\n\",\n       \"mp-1019105              1790.0               7.400  \\n\",\n       \"mp-1020108               333.6               1.100  \\n\",\n       \"mp-1029828               333.6               1.100  \\n\",\n       \"\\n\",\n       \"[5 rows x 290 columns]\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"<class 'pandas.core.frame.DataFrame'>\\n\",\n      \"Index: 2000 entries, mp-1013558 to mp-998778\\n\",\n      \"Columns: 290 entries, ave:atomic_number to min:Polarizability\\n\",\n      \"dtypes: float64(290)\\n\",\n      \"memory usage: 4.5+ MB\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"descriptor = cal.transform(samples['composition'])\\n\",\n    \"\\n\",\n    \"descriptor.head(5)\\n\",\n    \"descriptor.info()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"`Compositions`クラスでは，インプットは`pandas.DataFrame`の場合，コーロン名が`composition`の列を自動的に使われるように設計されている．つまり，サンプルデータから予め`composition`を抽出しなくても計算できる．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1013558</th>\\n\",\n       \"      <td>31.60</td>\\n\",\n       \"      <td>177.800000</td>\\n\",\n       \"      <td>256.600000</td>\\n\",\n       \"      <td>25.600000</td>\\n\",\n       \"      <td>72.037632</td>\\n\",\n       \"      <td>1541.400</td>\\n\",\n       \"      <td>18.600000</td>\\n\",\n       \"      <td>1478.000000</td>\\n\",\n       \"      <td>156.600000</td>\\n\",\n       \"      <td>155.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.124</td>\\n\",\n       \"      <td>0.23600</td>\\n\",\n       \"      <td>180.0</td>\\n\",\n       \"      <td>190.0</td>\\n\",\n       \"      <td>222.0</td>\\n\",\n       \"      <td>339.9</td>\\n\",\n       \"      <td>1790.0</td>\\n\",\n       \"      <td>3.630</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1018025</th>\\n\",\n       \"      <td>33.50</td>\\n\",\n       \"      <td>152.850710</td>\\n\",\n       \"      <td>209.250000</td>\\n\",\n       \"      <td>14.025000</td>\\n\",\n       \"      <td>78.708250</td>\\n\",\n       \"      <td>1583.345</td>\\n\",\n       \"      <td>75.053020</td>\\n\",\n       \"      <td>598.600000</td>\\n\",\n       \"      <td>116.000000</td>\\n\",\n       \"      <td>104.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.155</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>314.8</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1019105</th>\\n\",\n       \"      <td>38.00</td>\\n\",\n       \"      <td>188.333333</td>\\n\",\n       \"      <td>241.333333</td>\\n\",\n       \"      <td>26.866667</td>\\n\",\n       \"      <td>90.794567</td>\\n\",\n       \"      <td>1431.000</td>\\n\",\n       \"      <td>26.366667</td>\\n\",\n       \"      <td>1684.000000</td>\\n\",\n       \"      <td>164.000000</td>\\n\",\n       \"      <td>162.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.124</td>\\n\",\n       \"      <td>8.00000</td>\\n\",\n       \"      <td>173.0</td>\\n\",\n       \"      <td>251.0</td>\\n\",\n       \"      <td>243.0</td>\\n\",\n       \"      <td>302.1</td>\\n\",\n       \"      <td>1790.0</td>\\n\",\n       \"      <td>7.400</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1020108</th>\\n\",\n       \"      <td>10.00</td>\\n\",\n       \"      <td>131.428571</td>\\n\",\n       \"      <td>214.142857</td>\\n\",\n       \"      <td>17.285714</td>\\n\",\n       \"      <td>20.204143</td>\\n\",\n       \"      <td>1014.050</td>\\n\",\n       \"      <td>49.299236</td>\\n\",\n       \"      <td>664.871429</td>\\n\",\n       \"      <td>109.857143</td>\\n\",\n       \"      <td>110.285714</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.653</td>\\n\",\n       \"      <td>0.02583</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>166.0</td>\\n\",\n       \"      <td>193.0</td>\\n\",\n       \"      <td>245.1</td>\\n\",\n       \"      <td>333.6</td>\\n\",\n       \"      <td>1.100</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1029828</th>\\n\",\n       \"      <td>18.75</td>\\n\",\n       \"      <td>140.500000</td>\\n\",\n       \"      <td>207.750000</td>\\n\",\n       \"      <td>24.432500</td>\\n\",\n       \"      <td>41.369475</td>\\n\",\n       \"      <td>1015.200</td>\\n\",\n       \"      <td>69.307441</td>\\n\",\n       \"      <td>1355.100000</td>\\n\",\n       \"      <td>125.250000</td>\\n\",\n       \"      <td>118.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.360</td>\\n\",\n       \"      <td>0.02583</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>166.0</td>\\n\",\n       \"      <td>193.0</td>\\n\",\n       \"      <td>302.3</td>\\n\",\n       \"      <td>333.6</td>\\n\",\n       \"      <td>1.100</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>5 rows × 290 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-1013558              31.60         177.800000              256.600000   \\n\",\n       \"mp-1018025              33.50         152.850710              209.250000   \\n\",\n       \"mp-1019105              38.00         188.333333              241.333333   \\n\",\n       \"mp-1020108              10.00         131.428571              214.142857   \\n\",\n       \"mp-1029828              18.75         140.500000              207.750000   \\n\",\n       \"\\n\",\n       \"            ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-1013558          25.600000          72.037632           1541.400   \\n\",\n       \"mp-1018025          14.025000          78.708250           1583.345   \\n\",\n       \"mp-1019105          26.866667          90.794567           1431.000   \\n\",\n       \"mp-1020108          17.285714          20.204143           1014.050   \\n\",\n       \"mp-1029828          24.432500          41.369475           1015.200   \\n\",\n       \"\\n\",\n       \"            ave:bulk_modulus    ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-1013558         18.600000  1478.000000                   156.600000   \\n\",\n       \"mp-1018025         75.053020   598.600000                   116.000000   \\n\",\n       \"mp-1019105         26.366667  1684.000000                   164.000000   \\n\",\n       \"mp-1020108         49.299236   664.871429                   109.857143   \\n\",\n       \"mp-1029828         69.307441  1355.100000                   125.250000   \\n\",\n       \"\\n\",\n       \"            ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"mp-1013558                  155.000000  ...                2.0         3.0   \\n\",\n       \"mp-1018025                  104.000000  ...                1.0         2.0   \\n\",\n       \"mp-1019105                  162.000000  ...                1.0         3.0   \\n\",\n       \"mp-1020108                  110.285714  ...                1.0         2.0   \\n\",\n       \"mp-1029828                  118.500000  ...                1.0         2.0   \\n\",\n       \"\\n\",\n       \"            min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"mp-1013558              0.124                   0.23600           180.0   \\n\",\n       \"mp-1018025              0.155                   0.02658           152.0   \\n\",\n       \"mp-1019105              0.124                   8.00000           173.0   \\n\",\n       \"mp-1020108              0.653                   0.02583           155.0   \\n\",\n       \"mp-1029828              0.360                   0.02583           155.0   \\n\",\n       \"\\n\",\n       \"            min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"mp-1013558                   190.0               222.0               339.9   \\n\",\n       \"mp-1018025                   150.0               182.0               314.8   \\n\",\n       \"mp-1019105                   251.0               243.0               302.1   \\n\",\n       \"mp-1020108                   166.0               193.0               245.1   \\n\",\n       \"mp-1029828                   166.0               193.0               302.3   \\n\",\n       \"\\n\",\n       \"            min:sound_velocity  min:Polarizability  \\n\",\n       \"mp-1013558              1790.0               3.630  \\n\",\n       \"mp-1018025               317.5               0.802  \\n\",\n       \"mp-1019105              1790.0               7.400  \\n\",\n       \"mp-1020108               333.6               1.100  \\n\",\n       \"mp-1029828               333.6               1.100  \\n\",\n       \"\\n\",\n       \"[5 rows x 290 columns]\"\n      ]\n     },\n     \"execution_count\": 5,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"<class 'pandas.core.frame.DataFrame'>\\n\",\n      \"Index: 2000 entries, mp-1013558 to mp-998778\\n\",\n      \"Columns: 290 entries, ave:atomic_number to min:Polarizability\\n\",\n      \"dtypes: float64(290)\\n\",\n      \"memory usage: 4.5+ MB\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"descriptor = cal.transform(samples)\\n\",\n    \"descriptor.head(5)\\n\",\n    \"descriptor.info()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"また，計算しようとする記述子グループも指定可能である．\\n\",\n    \"例えば，以下のように設定すれば，`WeightedAvg`と`WeightedSum`記述子のみ計算される．\\n\",\n    \"\\n\",\n    \"`cal.all_featurizers`は利用可能な記述子グループをリストできる．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"['GeometricMean',\\n\",\n       \" 'Counting',\\n\",\n       \" 'WeightedAverage',\\n\",\n       \" 'MinPooling',\\n\",\n       \" 'MaxPooling',\\n\",\n       \" 'WeightedSum',\\n\",\n       \" 'WeightedVariance',\\n\",\n       \" 'HarmonicMean']\"\n      ]\n     },\n     \"execution_count\": 12,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"cal.all_featurizers\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>sum:num_s_valence</th>\\n\",\n       \"      <th>sum:period</th>\\n\",\n       \"      <th>sum:specific_heat</th>\\n\",\n       \"      <th>sum:thermal_conductivity</th>\\n\",\n       \"      <th>sum:vdw_radius</th>\\n\",\n       \"      <th>sum:vdw_radius_alvarez</th>\\n\",\n       \"      <th>sum:vdw_radius_mm3</th>\\n\",\n       \"      <th>sum:vdw_radius_uff</th>\\n\",\n       \"      <th>sum:sound_velocity</th>\\n\",\n       \"      <th>sum:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1013558</th>\\n\",\n       \"      <td>31.60</td>\\n\",\n       \"      <td>177.800000</td>\\n\",\n       \"      <td>256.600000</td>\\n\",\n       \"      <td>25.600000</td>\\n\",\n       \"      <td>72.037632</td>\\n\",\n       \"      <td>1541.400</td>\\n\",\n       \"      <td>18.600000</td>\\n\",\n       \"      <td>1478.000000</td>\\n\",\n       \"      <td>156.600000</td>\\n\",\n       \"      <td>155.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>10.0</td>\\n\",\n       \"      <td>21.0</td>\\n\",\n       \"      <td>2.840000</td>\\n\",\n       \"      <td>608.23600</td>\\n\",\n       \"      <td>1080.0</td>\\n\",\n       \"      <td>1230.0</td>\\n\",\n       \"      <td>1331.0</td>\\n\",\n       \"      <td>1871.4</td>\\n\",\n       \"      <td>17270.742870</td>\\n\",\n       \"      <td>86.030</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1018025</th>\\n\",\n       \"      <td>33.50</td>\\n\",\n       \"      <td>152.850710</td>\\n\",\n       \"      <td>209.250000</td>\\n\",\n       \"      <td>14.025000</td>\\n\",\n       \"      <td>78.708250</td>\\n\",\n       \"      <td>1583.345</td>\\n\",\n       \"      <td>75.053020</td>\\n\",\n       \"      <td>598.600000</td>\\n\",\n       \"      <td>116.000000</td>\\n\",\n       \"      <td>104.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>7.0</td>\\n\",\n       \"      <td>15.0</td>\\n\",\n       \"      <td>2.550373</td>\\n\",\n       \"      <td>446.05316</td>\\n\",\n       \"      <td>739.0</td>\\n\",\n       \"      <td>827.0</td>\\n\",\n       \"      <td>872.0</td>\\n\",\n       \"      <td>1378.8</td>\\n\",\n       \"      <td>7354.860704</td>\\n\",\n       \"      <td>30.284</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1019105</th>\\n\",\n       \"      <td>38.00</td>\\n\",\n       \"      <td>188.333333</td>\\n\",\n       \"      <td>241.333333</td>\\n\",\n       \"      <td>26.866667</td>\\n\",\n       \"      <td>90.794567</td>\\n\",\n       \"      <td>1431.000</td>\\n\",\n       \"      <td>26.366667</td>\\n\",\n       \"      <td>1684.000000</td>\\n\",\n       \"      <td>164.000000</td>\\n\",\n       \"      <td>162.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>10.0</td>\\n\",\n       \"      <td>26.0</td>\\n\",\n       \"      <td>3.804000</td>\\n\",\n       \"      <td>536.00000</td>\\n\",\n       \"      <td>1310.0</td>\\n\",\n       \"      <td>1556.0</td>\\n\",\n       \"      <td>1636.0</td>\\n\",\n       \"      <td>2240.6</td>\\n\",\n       \"      <td>16784.000000</td>\\n\",\n       \"      <td>122.120</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1020108</th>\\n\",\n       \"      <td>10.00</td>\\n\",\n       \"      <td>131.428571</td>\\n\",\n       \"      <td>214.142857</td>\\n\",\n       \"      <td>17.285714</td>\\n\",\n       \"      <td>20.204143</td>\\n\",\n       \"      <td>1014.050</td>\\n\",\n       \"      <td>49.299236</td>\\n\",\n       \"      <td>664.871429</td>\\n\",\n       \"      <td>109.857143</td>\\n\",\n       \"      <td>110.285714</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>26.0</td>\\n\",\n       \"      <td>36.0</td>\\n\",\n       \"      <td>16.377686</td>\\n\",\n       \"      <td>1190.15498</td>\\n\",\n       \"      <td>2522.0</td>\\n\",\n       \"      <td>2884.0</td>\\n\",\n       \"      <td>3174.0</td>\\n\",\n       \"      <td>4829.2</td>\\n\",\n       \"      <td>35225.600000</td>\\n\",\n       \"      <td>137.520</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1029828</th>\\n\",\n       \"      <td>18.75</td>\\n\",\n       \"      <td>140.500000</td>\\n\",\n       \"      <td>207.750000</td>\\n\",\n       \"      <td>24.432500</td>\\n\",\n       \"      <td>41.369475</td>\\n\",\n       \"      <td>1015.200</td>\\n\",\n       \"      <td>69.307441</td>\\n\",\n       \"      <td>1355.100000</td>\\n\",\n       \"      <td>125.250000</td>\\n\",\n       \"      <td>118.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>48.0</td>\\n\",\n       \"      <td>104.0</td>\\n\",\n       \"      <td>19.151163</td>\\n\",\n       \"      <td>1216.41328</td>\\n\",\n       \"      <td>6552.0</td>\\n\",\n       \"      <td>7184.0</td>\\n\",\n       \"      <td>7488.0</td>\\n\",\n       \"      <td>11565.6</td>\\n\",\n       \"      <td>63257.600000</td>\\n\",\n       \"      <td>488.320</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>5 rows × 116 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-1013558              31.60         177.800000              256.600000   \\n\",\n       \"mp-1018025              33.50         152.850710              209.250000   \\n\",\n       \"mp-1019105              38.00         188.333333              241.333333   \\n\",\n       \"mp-1020108              10.00         131.428571              214.142857   \\n\",\n       \"mp-1029828              18.75         140.500000              207.750000   \\n\",\n       \"\\n\",\n       \"            ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-1013558          25.600000          72.037632           1541.400   \\n\",\n       \"mp-1018025          14.025000          78.708250           1583.345   \\n\",\n       \"mp-1019105          26.866667          90.794567           1431.000   \\n\",\n       \"mp-1020108          17.285714          20.204143           1014.050   \\n\",\n       \"mp-1029828          24.432500          41.369475           1015.200   \\n\",\n       \"\\n\",\n       \"            ave:bulk_modulus    ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-1013558         18.600000  1478.000000                   156.600000   \\n\",\n       \"mp-1018025         75.053020   598.600000                   116.000000   \\n\",\n       \"mp-1019105         26.366667  1684.000000                   164.000000   \\n\",\n       \"mp-1020108         49.299236   664.871429                   109.857143   \\n\",\n       \"mp-1029828         69.307441  1355.100000                   125.250000   \\n\",\n       \"\\n\",\n       \"            ave:covalent_radius_pyykko  ...  sum:num_s_valence  sum:period  \\\\\\n\",\n       \"mp-1013558                  155.000000  ...               10.0        21.0   \\n\",\n       \"mp-1018025                  104.000000  ...                7.0        15.0   \\n\",\n       \"mp-1019105                  162.000000  ...               10.0        26.0   \\n\",\n       \"mp-1020108                  110.285714  ...               26.0        36.0   \\n\",\n       \"mp-1029828                  118.500000  ...               48.0       104.0   \\n\",\n       \"\\n\",\n       \"            sum:specific_heat  sum:thermal_conductivity  sum:vdw_radius  \\\\\\n\",\n       \"mp-1013558           2.840000                 608.23600          1080.0   \\n\",\n       \"mp-1018025           2.550373                 446.05316           739.0   \\n\",\n       \"mp-1019105           3.804000                 536.00000          1310.0   \\n\",\n       \"mp-1020108          16.377686                1190.15498          2522.0   \\n\",\n       \"mp-1029828          19.151163                1216.41328          6552.0   \\n\",\n       \"\\n\",\n       \"            sum:vdw_radius_alvarez  sum:vdw_radius_mm3  sum:vdw_radius_uff  \\\\\\n\",\n       \"mp-1013558                  1230.0              1331.0              1871.4   \\n\",\n       \"mp-1018025                   827.0               872.0              1378.8   \\n\",\n       \"mp-1019105                  1556.0              1636.0              2240.6   \\n\",\n       \"mp-1020108                  2884.0              3174.0              4829.2   \\n\",\n       \"mp-1029828                  7184.0              7488.0             11565.6   \\n\",\n       \"\\n\",\n       \"            sum:sound_velocity  sum:Polarizability  \\n\",\n       \"mp-1013558        17270.742870              86.030  \\n\",\n       \"mp-1018025         7354.860704              30.284  \\n\",\n       \"mp-1019105        16784.000000             122.120  \\n\",\n       \"mp-1020108        35225.600000             137.520  \\n\",\n       \"mp-1029828        63257.600000             488.320  \\n\",\n       \"\\n\",\n       \"[5 rows x 116 columns]\"\n      ]\n     },\n     \"execution_count\": 16,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"<class 'pandas.core.frame.DataFrame'>\\n\",\n      \"Index: 2000 entries, mp-1013558 to mp-998778\\n\",\n      \"Columns: 116 entries, ave:atomic_number to sum:Polarizability\\n\",\n      \"dtypes: float64(116)\\n\",\n      \"memory usage: 1.8+ MB\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"cal = Compositions(featurizers=['WeightedAverage', 'WeightedSum'])\\n\",\n    \"\\n\",\n    \"descriptor = cal.transform(samples)\\n\",\n    \"descriptor.head(5)\\n\",\n    \"descriptor.info()\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"interpreter\": {\n   \"hash\": \"93169193031bed5a34de5405a805c1cdfe217db623a6098111020ecff952ad9d\"\n  },\n  \"kernelspec\": {\n   \"display_name\": \"Python 3.8.13 ('xepy38')\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.8.13\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 2\n}\n"
  },
  {
    "path": "mi_book/exercise_13.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 演習13）分子動力学シミュレーションのサンプルデータにある300種類のポリマーの構造物性相関データを用いて，密度，定圧熱容量，熱伝導率，線膨張係数をの予測モデルを構築せよ．以下の説明やサンプルコードを参考にモデルの作成方法を自ら工夫し，その結果を考察せよ．\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"ライブラリの導入\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import os\\n\",\n    \"import numpy as np\\n\",\n    \"import pandas as pd\\n\",\n    \"import pickle as pk\\n\",\n    \"\\n\",\n    \"import matplotlib.pyplot as plt\\n\",\n    \"\\n\",\n    \"from xenonpy.descriptor import Fingerprints\\n\",\n    \"from xenonpy.datatools import Splitter, Scaler\\n\",\n    \"\\n\",\n    \"from sklearn.ensemble import RandomForestRegressor as RFR\\n\",\n    \"from sklearn.model_selection import GridSearchCV\\n\",\n    \"from sklearn.metrics import mean_squared_error, r2_score\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"データの導入\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"dir_file = 'data/Book_data_MD.csv'\\n\",\n    \"data = pd.read_csv(dir_file)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"ディスクリプタ/フィンガープリントを用意する\\n\",\n    \"\\n\",\n    \"モデル入力のために、カウント型ECFPとMordredを組み合わせます。これらを別々に計算するのではなく、XenonPyモジュールを用いてカスタマイズされた記述子計算機を作成する。これにより、同じ記述子セットの再計算が容易になる。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# prepare customized descriptor function\\n\",\n    \"\\n\",\n    \"from xenonpy.descriptor.base import BaseDescriptor\\n\",\n    \"from xenonpy.descriptor import ECFP\\n\",\n    \"from xenonpy.contrib.extend_descriptors.descriptor import Mordred2DDescriptor\\n\",\n    \"\\n\",\n    \"class CustomDesc(BaseDescriptor):\\n\",\n    \"    def __init__(self, n_jobs=-1, on_errors='nan', input_type='smiles'):\\n\",\n    \"        super().__init__()\\n\",\n    \"        self.n_jobs = n_jobs\\n\",\n    \"\\n\",\n    \"        self.rdkit_fp = ECFP(n_jobs, on_errors=on_errors, input_type=input_type, return_type='df', radius=3, n_bits=2048, counting=True)\\n\",\n    \"        self.rdkit_fp = Mordred2DDescriptor(on_errors=on_errors, return_type='df')\\n\",\n    \"\\n\",\n    \"fp_fcn = CustomDesc()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"  4%|█▌                                        | 11/300 [00:02<00:51,  5.58it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/numpy/core/fromnumeric.py:86: RuntimeWarning: overflow encountered in reduce\\n\",\n      \"  return ufunc.reduce(obj, axis, dtype, out, **passkwargs)\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \" 13%|█████▍                                    | 39/300 [00:02<00:10, 24.47it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/numpy/core/fromnumeric.py:86: RuntimeWarning: overflow encountered in reduce\\n\",\n      \"  return ufunc.reduce(obj, axis, dtype, out, **passkwargs)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/numpy/core/fromnumeric.py:86: RuntimeWarning: overflow encountered in reduce\\n\",\n      \"  return ufunc.reduce(obj, axis, dtype, out, **passkwargs)\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \" 37%|███████████████▏                         | 111/300 [00:04<00:05, 32.90it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/numpy/core/fromnumeric.py:86: RuntimeWarning: overflow encountered in reduce\\n\",\n      \"  return ufunc.reduce(obj, axis, dtype, out, **passkwargs)\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \" 47%|███████████████████▍                     | 142/300 [00:05<00:03, 40.08it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/numpy/core/fromnumeric.py:86: RuntimeWarning: overflow encountered in reduce\\n\",\n      \"  return ufunc.reduce(obj, axis, dtype, out, **passkwargs)\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \" 75%|██████████████████████████████▌          | 224/300 [00:07<00:01, 38.89it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/numpy/core/fromnumeric.py:86: RuntimeWarning: overflow encountered in reduce\\n\",\n      \"  return ufunc.reduce(obj, axis, dtype, out, **passkwargs)\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"100%|█████████████████████████████████████████| 300/300 [00:08<00:00, 34.28it/s]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# calculate descriptors\\n\",\n    \"fp = fp_fcn.transform(data['SMILES'])\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"ETA_alpha         300\\n\",\n      \"AETA_alpha        300\\n\",\n      \"ETA_shape_p       300\\n\",\n      \"ETA_shape_y       300\\n\",\n      \"ETA_shape_x       300\\n\",\n      \"ETA_eta           300\\n\",\n      \"AETA_eta          300\\n\",\n      \"ETA_eta_L         300\\n\",\n      \"AETA_eta_L        300\\n\",\n      \"ETA_eta_F         300\\n\",\n      \"AETA_eta_F        300\\n\",\n      \"ETA_eta_FL        300\\n\",\n      \"AETA_eta_FL       300\\n\",\n      \"ETA_dAlpha_A      300\\n\",\n      \"ETA_dAlpha_B      300\\n\",\n      \"ETA_epsilon_1     300\\n\",\n      \"ETA_epsilon_2     300\\n\",\n      \"ETA_epsilon_4     300\\n\",\n      \"ETA_epsilon_5     300\\n\",\n      \"ETA_dEpsilon_A    300\\n\",\n      \"ETA_dEpsilon_B    300\\n\",\n      \"ETA_dEpsilon_C    300\\n\",\n      \"ETA_dEpsilon_D    300\\n\",\n      \"ETA_psi_1         300\\n\",\n      \"ETA_dPsi_A        300\\n\",\n      \"ETA_dPsi_B        300\\n\",\n      \"VMcGowan          300\\n\",\n      \"apol              300\\n\",\n      \"bpol              300\\n\",\n      \"dtype: int64\\n\",\n      \"Final num. of descriptors = 1929\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# check NA values in the descriptors\\n\",\n    \"idx_na = fp.isna().sum() > 0\\n\",\n    \"print(fp.isna().sum()[idx_na])\\n\",\n    \"\\n\",\n    \"# remove all descriptors with NA values and all-zero values\\n\",\n    \"idx_0 = (fp == 0).all()\\n\",\n    \"\\n\",\n    \"# remove all descriptors with error message from Mordred (i.e., not INT or FLOAT)\\n\",\n    \"idx_error = [key for key, val in fp.dtypes.iteritems() if not (val == int or val == float)]\\n\",\n    \"\\n\",\n    \"fp_filtered = fp.loc[:, ~(idx_na | idx_0)].drop(idx_error, axis=1)\\n\",\n    \"print(f'Final num. of descriptors = {fp_filtered.shape[1]}')\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"予測結果のプロット用関数を用意する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# x-axis: observation data, y-axis: prediction\\n\",\n    \"def plot_prediction(x_tr, y_tr, x_te, y_te, dir_file):\\n\",\n    \"    xy_min = min(np.concatenate([x_tr, x_te, y_tr, y_te]))\\n\",\n    \"    xy_max = max(np.concatenate([x_tr, x_te, y_tr, y_te]))\\n\",\n    \"    xy_del = xy_max - xy_min\\n\",\n    \"    \\n\",\n    \"    _ = plt.figure(figsize=(5,5))\\n\",\n    \"    _ = plt.scatter(x_tr, y_tr, s=20, c='k', marker='x', alpha=0.5, label='Training')\\n\",\n    \"    _ = plt.scatter(x_te, y_te, s=20, c='k', alpha=0.6, label='Test')\\n\",\n    \"    _ = plt.rc('xtick',labelsize=14)\\n\",\n    \"    _ = plt.rc('ytick',labelsize=14)\\n\",\n    \"    _ = plt.xlabel('Prediction', fontsize=14)\\n\",\n    \"    _ = plt.ylabel('Observation', fontsize=14)\\n\",\n    \"    _ = plt.legend(fontsize=14)\\n\",\n    \"    _ = plt.plot([xy_min,xy_max],[xy_min,xy_max],ls=\\\"--\\\",c='k')\\n\",\n    \"    _ = plt.savefig(dir_file, dpi = 500, bbox_inches = \\\"tight\\\")\\n\",\n    \"    _ = plt.close()\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"データの各物性に対してランダムフォレストモデルを学習させる。\\n\",\n    \"\\n\",\n    \"[実行に数分かかる]\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 1min 8s, sys: 357 ms, total: 1min 8s\\n\",\n      \"Wall time: 1min 8s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# grids for hyperparameters\\n\",\n    \"n_tree = [50, 100, 200]\\n\",\n    \"max_feat_r = [0.1, 0.3, 0.5, 0.7]\\n\",\n    \"\\n\",\n    \"# directories\\n\",\n    \"dir_plot = 'output/演習13/Results'\\n\",\n    \"dir_mdl = 'output/演習13/Models'\\n\",\n    \"os.makedirs(dir_plot, exist_ok=True)\\n\",\n    \"os.makedirs(dir_mdl, exist_ok=True)\\n\",\n    \"\\n\",\n    \"# setup\\n\",\n    \"x_all = fp_filtered\\n\",\n    \"summary = pd.DataFrame(index=data.drop('SMILES', axis=1).columns, columns=['RMSE_train', 'R2_train', 'RMSE_test', 'R2_test'])\\n\",\n    \"\\n\",\n    \"# fixing random seed for reproducibility\\n\",\n    \"np.random.seed (202202)\\n\",\n    \"\\n\",\n    \"for prop, y_all in data.drop('SMILES', axis=1).iteritems():\\n\",\n    \"    # split data into training (all) and test\\n\",\n    \"    sp_test = Splitter(len(y_all), test_size=0.2)\\n\",\n    \"    x_train, x_test, y_train, y_test = sp_test.split(x_all, y_all.to_frame())\\n\",\n    \"\\n\",\n    \"    # scale test data\\n\",\n    \"    y_scaler = Scaler().standard()\\n\",\n    \"    y_train_s = y_scaler.fit_transform(y_train)\\n\",\n    \"    y_test_s = y_scaler.transform(y_test)\\n\",\n    \"    \\n\",\n    \"    # train model with hyperparameter tuning\\n\",\n    \"    max_feat = np.round([x*x_train.shape[1] for x in max_feat_r]).astype(int)\\n\",\n    \"    parameters = {'n_estimators': n_tree, 'max_features': max_feat}\\n\",\n    \"    mdl = GridSearchCV(RFR(), parameters, scoring='neg_mean_squared_error')\\n\",\n    \"    mdl.fit(x_train, y_train_s.values.flatten()) # requires 1D vector for model training\\n\",\n    \"    \\n\",\n    \"    # save trained model\\n\",\n    \"    with open(f'{dir_mdl}/{prop}.pkl', 'wb') as f:\\n\",\n    \"        pk.dump({'model': mdl, 'scaler': y_scaler, 'splitter': sp_test, 'descriptor': x_train.columns.values}, f)\\n\",\n    \"    \\n\",\n    \"    # make predictions for training and test data\\n\",\n    \"    prd_train = y_scaler.inverse_transform(mdl.predict(x_train).reshape(-1,1)).flatten()\\n\",\n    \"    prd_test = y_scaler.inverse_transform(mdl.predict(x_test).reshape(-1,1)).flatten()\\n\",\n    \"\\n\",\n    \"    # get performance statistics\\n\",\n    \"    summary.loc[prop, 'RMSE_train'] = np.sqrt(mean_squared_error(prd_train, y_train.values.flatten()))\\n\",\n    \"    summary.loc[prop, 'R2_train'] = r2_score(prd_train, y_train.values.flatten())\\n\",\n    \"    summary.loc[prop, 'RMSE_test'] = np.sqrt(mean_squared_error(prd_test, y_test.values.flatten()))\\n\",\n    \"    summary.loc[prop, 'R2_test'] = r2_score(prd_test, y_test.values.flatten())\\n\",\n    \"\\n\",\n    \"    if prop == 'thermal_conductivity':\\n\",\n    \"        break\\n\",\n    \"        \\n\",\n    \"    # save plot\\n\",\n    \"    file_name = f'{dir_plot}/{prop}.png'\\n\",\n    \"    plot_prediction(prd_train, y_train.values.flatten(), prd_test, y_test.values.flatten(), file_name)\\n\",\n    \"    \\n\",\n    \"# save statistics\\n\",\n    \"summary.to_csv(f'{dir_plot}/prediction_summary.csv')\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"file_name = f'{dir_plot}/{prop}.png'\\n\",\n    \"plot_prediction(prd_train, y_train.values.flatten(), prd_test, y_test.values.flatten(), file_name)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"iMacHome_xepy38_working\",\n   \"language\": \"python\",\n   \"name\": \"imachome_xepy38_working\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.8.12\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "mi_book/exercise_14.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"903bad8b\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 演習 14\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"この演習では，`xenonpy.descriptor`の下に様々な記述子計算モジュールと駆使して，`Materials Project`に収録されているサンプルデータの`形成エネルギー (formation_energy_per_atom)`, `密度 (density)`と`バンドギャップ (band_gap)`をモデルで予測する．`xenonpy.descriptor.Composition`モジュールを利用して，化学式から記述子を計算する．\\n\",\n    \"\\n\",\n    \"サンプルデータの取得について，．[retrieve_materials_project](https://nbviewer.org/github/yoshida-lab/XenonPy/blob/master/MI_Book/retrieve_materials_project.ipynb) を参考せよ．\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"57ea6865\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 必要なパッケージをimportする\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"id\": \"df959f50-1052-42de-bb46-2f6420f37ddc\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run common_setting.ipynb\\n\",\n    \"\\n\",\n    \"from xenonpy.datatools import preset\\n\",\n    \"\\n\",\n    \"import numpy as np\\n\",\n    \"import pandas as pd\\n\",\n    \"import seaborn as sns\\n\",\n    \"\\n\",\n    \"from matplotlib import pyplot as plt\\n\",\n    \"import matplotlib.ticker as plticker\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"45aafe22-f713-4902-9cd1-1d809cac6d55\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### ターゲットを設定する\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"id\": \"86ea3a5d-ad88-4b81-a020-3da1f8be3860\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"props = ['formation_energy_per_atom', 'density', 'band_gap']\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"id\": \"2866aadb-5324-4c8d-8f54-e12c626451ff\",\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(2000, 11)\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>band_gap</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>density</th>\\n\",\n       \"      <th>e_above_hull</th>\\n\",\n       \"      <th>efermi</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>final_energy_per_atom</th>\\n\",\n       \"      <th>formation_energy_per_atom</th>\\n\",\n       \"      <th>pretty_formula</th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"      <th>volume</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1013558</th>\\n\",\n       \"      <td>0.0759</td>\\n\",\n       \"      <td>{'Ca': 3.0, 'Bi': 1.0, 'P': 1.0}</td>\\n\",\n       \"      <td>3.744327</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>3.359477</td>\\n\",\n       \"      <td>[Ca, Bi, P]</td>\\n\",\n       \"      <td>-4.028126</td>\\n\",\n       \"      <td>-0.968508</td>\\n\",\n       \"      <td>Ca3BiP</td>\\n\",\n       \"      <td>[[0.       2.712928 2.712928] Ca, [2.712928 0....</td>\\n\",\n       \"      <td>159.736730</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1018025</th>\\n\",\n       \"      <td>2.1874</td>\\n\",\n       \"      <td>{'Lu': 1.0, 'Ag': 1.0, 'O': 2.0}</td>\\n\",\n       \"      <td>8.244933</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>1.097439</td>\\n\",\n       \"      <td>[Lu, Ag, O]</td>\\n\",\n       \"      <td>-6.680209</td>\\n\",\n       \"      <td>-2.719007</td>\\n\",\n       \"      <td>LuAgO2</td>\\n\",\n       \"      <td>[[9.269319 0.       1.463227] Lu, [0. 0. 0.] A...</td>\\n\",\n       \"      <td>63.407935</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1019105</th>\\n\",\n       \"      <td>0.3778</td>\\n\",\n       \"      <td>{'K': 2.0, 'Mg': 2.0, 'Bi': 2.0}</td>\\n\",\n       \"      <td>4.363566</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>2.351814</td>\\n\",\n       \"      <td>[K, Mg, Bi]</td>\\n\",\n       \"      <td>-2.668499</td>\\n\",\n       \"      <td>-0.470595</td>\\n\",\n       \"      <td>KMgBi</td>\\n\",\n       \"      <td>[[0.         2.470566   2.96732902] K, [2.4705...</td>\\n\",\n       \"      <td>207.309239</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            band_gap                       composition   density  \\\\\\n\",\n       \"mp-1013558    0.0759  {'Ca': 3.0, 'Bi': 1.0, 'P': 1.0}  3.744327   \\n\",\n       \"mp-1018025    2.1874  {'Lu': 1.0, 'Ag': 1.0, 'O': 2.0}  8.244933   \\n\",\n       \"mp-1019105    0.3778  {'K': 2.0, 'Mg': 2.0, 'Bi': 2.0}  4.363566   \\n\",\n       \"\\n\",\n       \"            e_above_hull    efermi     elements  final_energy_per_atom  \\\\\\n\",\n       \"mp-1013558             0  3.359477  [Ca, Bi, P]              -4.028126   \\n\",\n       \"mp-1018025             0  1.097439  [Lu, Ag, O]              -6.680209   \\n\",\n       \"mp-1019105             0  2.351814  [K, Mg, Bi]              -2.668499   \\n\",\n       \"\\n\",\n       \"            formation_energy_per_atom pretty_formula  \\\\\\n\",\n       \"mp-1013558                  -0.968508         Ca3BiP   \\n\",\n       \"mp-1018025                  -2.719007         LuAgO2   \\n\",\n       \"mp-1019105                  -0.470595          KMgBi   \\n\",\n       \"\\n\",\n       \"                                                    structure      volume  \\n\",\n       \"mp-1013558  [[0.       2.712928 2.712928] Ca, [2.712928 0....  159.736730  \\n\",\n       \"mp-1018025  [[9.269319 0.       1.463227] Lu, [0. 0. 0.] A...   63.407935  \\n\",\n       \"mp-1019105  [[0.         2.470566   2.96732902] K, [2.4705...  207.309239  \"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"stable_data = preset.mp_samples\\n\",\n    \"\\n\",\n    \"stable_data.shape\\n\",\n    \"stable_data.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"d5b1f20c\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### データを分割する\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"id\": \"1f3492c0-f5c6-48b1-b4ef-bb0d4e2ff6a9\",\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"1600\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"400\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"\\n\",\n    \"from xenonpy.datatools import Splitter\\n\",\n    \"\\n\",\n    \"sp = Splitter(len(stable_data), test_size=0.2)\\n\",\n    \"\\n\",\n    \"train_idx, test_idx = sp.split(stable_data.index.tolist())\\n\",\n    \"all_idx = np.concatenate([train_idx, test_idx])\\n\",\n    \"\\n\",\n    \"train_idx.size\\n\",\n    \"test_idx.size\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"77270553-1e49-41ea-9622-f1c1d34b8d1d\",\n   \"metadata\": {},\n   \"source\": [\n    \"### モデル訓練とテスト\\n\",\n    \"\\n\",\n    \"#### 組成記述子とランダムフォレストモデル (random forest)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"id\": \"ffa188fc-7857-4cd0-b93b-8dd785f16363\",\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1013558</th>\\n\",\n       \"      <td>31.6</td>\\n\",\n       \"      <td>177.800000</td>\\n\",\n       \"      <td>256.600000</td>\\n\",\n       \"      <td>25.600000</td>\\n\",\n       \"      <td>72.037632</td>\\n\",\n       \"      <td>1541.400</td>\\n\",\n       \"      <td>18.600000</td>\\n\",\n       \"      <td>1478.0</td>\\n\",\n       \"      <td>156.6</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.124</td>\\n\",\n       \"      <td>0.23600</td>\\n\",\n       \"      <td>180.0</td>\\n\",\n       \"      <td>190.0</td>\\n\",\n       \"      <td>222.0</td>\\n\",\n       \"      <td>339.9</td>\\n\",\n       \"      <td>1790.0</td>\\n\",\n       \"      <td>3.630</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1018025</th>\\n\",\n       \"      <td>33.5</td>\\n\",\n       \"      <td>152.850710</td>\\n\",\n       \"      <td>209.250000</td>\\n\",\n       \"      <td>14.025000</td>\\n\",\n       \"      <td>78.708250</td>\\n\",\n       \"      <td>1583.345</td>\\n\",\n       \"      <td>75.053020</td>\\n\",\n       \"      <td>598.6</td>\\n\",\n       \"      <td>116.0</td>\\n\",\n       \"      <td>104.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.155</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>314.8</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1019105</th>\\n\",\n       \"      <td>38.0</td>\\n\",\n       \"      <td>188.333333</td>\\n\",\n       \"      <td>241.333333</td>\\n\",\n       \"      <td>26.866667</td>\\n\",\n       \"      <td>90.794567</td>\\n\",\n       \"      <td>1431.000</td>\\n\",\n       \"      <td>26.366667</td>\\n\",\n       \"      <td>1684.0</td>\\n\",\n       \"      <td>164.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.124</td>\\n\",\n       \"      <td>8.00000</td>\\n\",\n       \"      <td>173.0</td>\\n\",\n       \"      <td>251.0</td>\\n\",\n       \"      <td>243.0</td>\\n\",\n       \"      <td>302.1</td>\\n\",\n       \"      <td>1790.0</td>\\n\",\n       \"      <td>7.400</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>3 rows × 290 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-1013558               31.6         177.800000              256.600000   \\n\",\n       \"mp-1018025               33.5         152.850710              209.250000   \\n\",\n       \"mp-1019105               38.0         188.333333              241.333333   \\n\",\n       \"\\n\",\n       \"            ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-1013558          25.600000          72.037632           1541.400   \\n\",\n       \"mp-1018025          14.025000          78.708250           1583.345   \\n\",\n       \"mp-1019105          26.866667          90.794567           1431.000   \\n\",\n       \"\\n\",\n       \"            ave:bulk_modulus  ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-1013558         18.600000     1478.0                        156.6   \\n\",\n       \"mp-1018025         75.053020      598.6                        116.0   \\n\",\n       \"mp-1019105         26.366667     1684.0                        164.0   \\n\",\n       \"\\n\",\n       \"            ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"mp-1013558                       155.0  ...                2.0         3.0   \\n\",\n       \"mp-1018025                       104.0  ...                1.0         2.0   \\n\",\n       \"mp-1019105                       162.0  ...                1.0         3.0   \\n\",\n       \"\\n\",\n       \"            min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"mp-1013558              0.124                   0.23600           180.0   \\n\",\n       \"mp-1018025              0.155                   0.02658           152.0   \\n\",\n       \"mp-1019105              0.124                   8.00000           173.0   \\n\",\n       \"\\n\",\n       \"            min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"mp-1013558                   190.0               222.0               339.9   \\n\",\n       \"mp-1018025                   150.0               182.0               314.8   \\n\",\n       \"mp-1019105                   251.0               243.0               302.1   \\n\",\n       \"\\n\",\n       \"            min:sound_velocity  min:Polarizability  \\n\",\n       \"mp-1013558              1790.0               3.630  \\n\",\n       \"mp-1018025               317.5               0.802  \\n\",\n       \"mp-1019105              1790.0               7.400  \\n\",\n       \"\\n\",\n       \"[3 rows x 290 columns]\"\n      ]\n     },\n     \"execution_count\": 5,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import Compositions\\n\",\n    \"\\n\",\n    \"comp_desc = Compositions(n_jobs=5).fit_transform(stable_data)\\n\",\n    \"comp_desc.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"id\": \"6c2a3ff9-e6c7-41fb-9d30-fbedd6ddba95\",\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>formation_energy_per_atom</th>\\n\",\n       \"      <th>density</th>\\n\",\n       \"      <th>band_gap</th>\\n\",\n       \"      <th>formation_energy_per_atom_pred</th>\\n\",\n       \"      <th>density_pred</th>\\n\",\n       \"      <th>band_gap_pred</th>\\n\",\n       \"      <th>label</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1210315</th>\\n\",\n       \"      <td>-1.738261</td>\\n\",\n       \"      <td>3.284506</td>\\n\",\n       \"      <td>0.9742</td>\\n\",\n       \"      <td>-1.724995</td>\\n\",\n       \"      <td>3.299877</td>\\n\",\n       \"      <td>1.012701</td>\\n\",\n       \"      <td>Train</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-862968</th>\\n\",\n       \"      <td>-0.836234</td>\\n\",\n       \"      <td>8.078911</td>\\n\",\n       \"      <td>0.1401</td>\\n\",\n       \"      <td>-0.886895</td>\\n\",\n       \"      <td>7.753209</td>\\n\",\n       \"      <td>0.389330</td>\\n\",\n       \"      <td>Train</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-8479</th>\\n\",\n       \"      <td>-0.831199</td>\\n\",\n       \"      <td>5.951824</td>\\n\",\n       \"      <td>2.0501</td>\\n\",\n       \"      <td>-0.887056</td>\\n\",\n       \"      <td>6.138277</td>\\n\",\n       \"      <td>1.769789</td>\\n\",\n       \"      <td>Train</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            formation_energy_per_atom   density  band_gap  \\\\\\n\",\n       \"mp-1210315                  -1.738261  3.284506    0.9742   \\n\",\n       \"mp-862968                   -0.836234  8.078911    0.1401   \\n\",\n       \"mp-8479                     -0.831199  5.951824    2.0501   \\n\",\n       \"\\n\",\n       \"            formation_energy_per_atom_pred  density_pred  band_gap_pred  label  \\n\",\n       \"mp-1210315                       -1.724995      3.299877       1.012701  Train  \\n\",\n       \"mp-862968                        -0.886895      7.753209       0.389330  Train  \\n\",\n       \"mp-8479                          -0.887056      6.138277       1.769789  Train  \"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from sklearn.ensemble import RandomForestRegressor\\n\",\n    \"\\n\",\n    \"rfr = RandomForestRegressor(n_estimators=250, n_jobs=5).fit(comp_desc.loc[train_idx], stable_data[props].loc[train_idx])\\n\",\n    \"\\n\",\n    \"y_pred = rfr.predict(comp_desc.loc[test_idx])\\n\",\n    \"y_pred = pd.DataFrame(y_pred, index=test_idx, columns=[s + '_pred' for s in props])\\n\",\n    \"\\n\",\n    \"y_pred_fit = rfr.predict(comp_desc.loc[train_idx])\\n\",\n    \"y_pred_fit = pd.DataFrame(y_pred_fit, index=train_idx, columns=[s + '_pred' for s in props])\\n\",\n    \"\\n\",\n    \"results = pd.concat(\\n\",\n    \"    [stable_data[props].loc[all_idx], pd.concat([y_pred_fit, y_pred])],\\n\",\n    \"    axis=1,\\n\",\n    \"    ).assign(label=['Train']*train_idx.size + ['Test']*test_idx.size)\\n\",\n    \"results.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"id\": \"7723f167-2966-4f42-beea-de1e7f0ac1a3\",\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 2400x750 with 3 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"fig, axs = plt.subplots(1, 3, figsize=(16, 5), dpi=150)\\n\",\n    \"plt.subplots_adjust(wspace=0.15)\\n\",\n    \"\\n\",\n    \"titles = {\\n\",\n    \"    'formation_energy_per_atom': 'E (eV)',\\n\",\n    \"    'density': r\\\"$\\\\rho$ (g/cm$^3$)\\\",\\n\",\n    \"    'band_gap': r\\\"$\\\\mathrm{E}_\\\\mathrm{b}$ (eV)\\\"\\n\",\n    \"}\\n\",\n    \"\\n\",\n    \"for i, (prop, ax) in enumerate(zip(props, axs)):\\n\",\n    \"    train_idx, test_idx = results[results.label == 'Train'].index, results[results.label == 'Test'].index\\n\",\n    \"    \\n\",\n    \"    pred = results[prop + '_pred'].loc[test_idx].values\\n\",\n    \"    pred_fit = results[prop + '_pred'].loc[train_idx].values\\n\",\n    \"    \\n\",\n    \"    true = results[prop].loc[test_idx].values\\n\",\n    \"    true_fit = results[prop].loc[train_idx].values\\n\",\n    \"    \\n\",\n    \"    with sns.axes_style(\\\"ticks\\\", rc={\\\"lines.linewidth\\\": 13, \\\"axes.labelsize\\\": \\\"large\\\"}):\\n\",\n    \"        ax = cv_plot(pred, true, pred_fit, true_fit,\\n\",\n    \"                     ax=ax, color_style=True, title=titles[prop],\\n\",\n    \"                     show_legend=True if i == 0 else False, show_label=False)\\n\",\n    \"        \\n\",\n    \"        if i == 0:\\n\",\n    \"            _ = ax.set_ylabel('Observation', fontsize='xx-large')\\n\",\n    \"        _ = ax.set_xlabel('Prediction', fontsize='xx-large')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"a33e55ee-b608-4a53-b10b-23ae4ae5a66a\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### 組成+RDF記述子とランダムフォレストモデル (random forest)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"id\": \"42217ecd-5eb0-446a-97a4-779b010d8055\",\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/Users/liuchang/mambaforge/envs/xepy38/lib/python3.8/site-packages/joblib/externals/loky/process_executor.py:702: UserWarning: A worker stopped while some jobs were given to the executor. This can be caused by a too short worker timeout or by a memory leak.\\n\",\n      \"  warnings.warn(\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 3.85 s, sys: 3.38 s, total: 7.23 s\\n\",\n      \"Wall time: 4min 23s\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>0.1</th>\\n\",\n       \"      <th>0.2</th>\\n\",\n       \"      <th>0.30000000000000004</th>\\n\",\n       \"      <th>0.4</th>\\n\",\n       \"      <th>0.5</th>\\n\",\n       \"      <th>0.6000000000000001</th>\\n\",\n       \"      <th>0.7000000000000001</th>\\n\",\n       \"      <th>0.8</th>\\n\",\n       \"      <th>0.9</th>\\n\",\n       \"      <th>1.0</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>19.1</th>\\n\",\n       \"      <th>19.200000000000003</th>\\n\",\n       \"      <th>19.3</th>\\n\",\n       \"      <th>19.400000000000002</th>\\n\",\n       \"      <th>19.5</th>\\n\",\n       \"      <th>19.6</th>\\n\",\n       \"      <th>19.700000000000003</th>\\n\",\n       \"      <th>19.8</th>\\n\",\n       \"      <th>19.900000000000002</th>\\n\",\n       \"      <th>20.0</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1013558</th>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>23.293012</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>6.518284</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>7.982000</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>9.385389</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>24.528412</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1018025</th>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>5.839721</td>\\n\",\n       \"      <td>4.540557</td>\\n\",\n       \"      <td>3.676504</td>\\n\",\n       \"      <td>1.212867</td>\\n\",\n       \"      <td>4.201498</td>\\n\",\n       \"      <td>6.733013</td>\\n\",\n       \"      <td>2.352232</td>\\n\",\n       \"      <td>3.104630</td>\\n\",\n       \"      <td>7.107302</td>\\n\",\n       \"      <td>2.662357</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1019105</th>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>2.399214</td>\\n\",\n       \"      <td>4.748704</td>\\n\",\n       \"      <td>4.699748</td>\\n\",\n       \"      <td>6.977319</td>\\n\",\n       \"      <td>6.906123</td>\\n\",\n       \"      <td>6.836011</td>\\n\",\n       \"      <td>10.714354</td>\\n\",\n       \"      <td>6.140706</td>\\n\",\n       \"      <td>8.842617</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>3 rows × 200 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            0.1  0.2  0.30000000000000004  0.4  0.5  0.6000000000000001  \\\\\\n\",\n       \"mp-1013558  0.0  0.0                  0.0  0.0  0.0                 0.0   \\n\",\n       \"mp-1018025  0.0  0.0                  0.0  0.0  0.0                 0.0   \\n\",\n       \"mp-1019105  0.0  0.0                  0.0  0.0  0.0                 0.0   \\n\",\n       \"\\n\",\n       \"            0.7000000000000001  0.8  0.9  1.0  ...      19.1  \\\\\\n\",\n       \"mp-1013558                 0.0  0.0  0.0  0.0  ...  0.000000   \\n\",\n       \"mp-1018025                 0.0  0.0  0.0  0.0  ...  5.839721   \\n\",\n       \"mp-1019105                 0.0  0.0  0.0  0.0  ...  0.000000   \\n\",\n       \"\\n\",\n       \"            19.200000000000003      19.3  19.400000000000002      19.5  \\\\\\n\",\n       \"mp-1013558           23.293012  0.000000            6.518284  0.000000   \\n\",\n       \"mp-1018025            4.540557  3.676504            1.212867  4.201498   \\n\",\n       \"mp-1019105            2.399214  4.748704            4.699748  6.977319   \\n\",\n       \"\\n\",\n       \"                19.6  19.700000000000003       19.8  19.900000000000002  \\\\\\n\",\n       \"mp-1013558  7.982000            0.000000   9.385389            0.000000   \\n\",\n       \"mp-1018025  6.733013            2.352232   3.104630            7.107302   \\n\",\n       \"mp-1019105  6.906123            6.836011  10.714354            6.140706   \\n\",\n       \"\\n\",\n       \"                 20.0  \\n\",\n       \"mp-1013558  24.528412  \\n\",\n       \"mp-1018025   2.662357  \\n\",\n       \"mp-1019105   8.842617  \\n\",\n       \"\\n\",\n       \"[3 rows x 200 columns]\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"from xenonpy.descriptor import RadialDistributionFunction\\n\",\n    \"\\n\",\n    \"rdf_desc = RadialDistributionFunction(n_jobs=5).fit_transform(stable_data.structure)\\n\",\n    \"rdf_desc.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"id\": \"bb53ad73-1f6b-471f-a28c-c97b76f0e4dd\",\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>formation_energy_per_atom</th>\\n\",\n       \"      <th>density</th>\\n\",\n       \"      <th>band_gap</th>\\n\",\n       \"      <th>formation_energy_per_atom_pred</th>\\n\",\n       \"      <th>density_pred</th>\\n\",\n       \"      <th>band_gap_pred</th>\\n\",\n       \"      <th>label</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1210315</th>\\n\",\n       \"      <td>-1.738261</td>\\n\",\n       \"      <td>3.284506</td>\\n\",\n       \"      <td>0.9742</td>\\n\",\n       \"      <td>-1.699575</td>\\n\",\n       \"      <td>3.340531</td>\\n\",\n       \"      <td>1.014570</td>\\n\",\n       \"      <td>Train</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-862968</th>\\n\",\n       \"      <td>-0.836234</td>\\n\",\n       \"      <td>8.078911</td>\\n\",\n       \"      <td>0.1401</td>\\n\",\n       \"      <td>-0.889375</td>\\n\",\n       \"      <td>7.798173</td>\\n\",\n       \"      <td>0.377084</td>\\n\",\n       \"      <td>Train</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-8479</th>\\n\",\n       \"      <td>-0.831199</td>\\n\",\n       \"      <td>5.951824</td>\\n\",\n       \"      <td>2.0501</td>\\n\",\n       \"      <td>-0.883555</td>\\n\",\n       \"      <td>6.145549</td>\\n\",\n       \"      <td>1.728749</td>\\n\",\n       \"      <td>Train</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            formation_energy_per_atom   density  band_gap  \\\\\\n\",\n       \"mp-1210315                  -1.738261  3.284506    0.9742   \\n\",\n       \"mp-862968                   -0.836234  8.078911    0.1401   \\n\",\n       \"mp-8479                     -0.831199  5.951824    2.0501   \\n\",\n       \"\\n\",\n       \"            formation_energy_per_atom_pred  density_pred  band_gap_pred  label  \\n\",\n       \"mp-1210315                       -1.699575      3.340531       1.014570  Train  \\n\",\n       \"mp-862968                        -0.889375      7.798173       0.377084  Train  \\n\",\n       \"mp-8479                          -0.883555      6.145549       1.728749  Train  \"\n      ]\n     },\n     \"execution_count\": 9,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"comp_rdf_desc = pd.concat([comp_desc, rdf_desc], axis=1)\\n\",\n    \"rfr = RandomForestRegressor(n_estimators=250, n_jobs=10).fit(comp_rdf_desc.loc[train_idx], stable_data[props].loc[train_idx])\\n\",\n    \"\\n\",\n    \"y_pred = rfr.predict(comp_rdf_desc.loc[test_idx])\\n\",\n    \"y_pred = pd.DataFrame(y_pred, index=test_idx, columns=[s + '_pred' for s in props])\\n\",\n    \"\\n\",\n    \"y_pred_fit = rfr.predict(comp_rdf_desc.loc[train_idx])\\n\",\n    \"y_pred_fit = pd.DataFrame(y_pred_fit, index=train_idx, columns=[s + '_pred' for s in props])\\n\",\n    \"\\n\",\n    \"results = pd.concat(\\n\",\n    \"    [stable_data[props].loc[all_idx], pd.concat([y_pred_fit, y_pred])],\\n\",\n    \"    axis=1,\\n\",\n    \"    ).assign(label=['Train']*train_idx.size + ['Test']*test_idx.size)\\n\",\n    \"results.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"id\": \"06702004-9390-4f21-8b2d-11d04b3fced9\",\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 2400x750 with 3 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"fig, axs = plt.subplots(1, 3, figsize=(16, 5), dpi=150)\\n\",\n    \"plt.subplots_adjust(wspace=0.15)\\n\",\n    \"\\n\",\n    \"titles = {\\n\",\n    \"    'formation_energy_per_atom': 'E (eV)',\\n\",\n    \"    'density': r\\\"$\\\\rho$ (g/cm$^3$)\\\",\\n\",\n    \"    'band_gap': r\\\"$\\\\mathrm{E}_b$ (eV)\\\"\\n\",\n    \"}\\n\",\n    \"\\n\",\n    \"for i, (prop, ax) in enumerate(zip(props, axs)):\\n\",\n    \"    train_idx, test_idx = results[results.label == 'Train'].index, results[results.label == 'Test'].index\\n\",\n    \"    \\n\",\n    \"    pred = results[prop + '_pred'].loc[test_idx].values\\n\",\n    \"    pred_fit = results[prop + '_pred'].loc[train_idx].values\\n\",\n    \"    \\n\",\n    \"    true = results[prop].loc[test_idx].values\\n\",\n    \"    true_fit = results[prop].loc[train_idx].values\\n\",\n    \"    \\n\",\n    \"    with sns.axes_style(\\\"ticks\\\", rc={\\\"lines.linewidth\\\": 13, \\\"axes.labelsize\\\": \\\"large\\\"}):\\n\",\n    \"        ax = cv_plot(pred, true, pred_fit, true_fit,\\n\",\n    \"                     ax=ax, color_style=True, title=titles[prop],\\n\",\n    \"                     show_legend=True if i == 0 else False, show_label=False)\\n\",\n    \"        \\n\",\n    \"        if i == 0:\\n\",\n    \"            _ = ax.set_ylabel('Observation', fontsize='xx-large')\\n\",\n    \"        _ = ax.set_xlabel('Prediction', fontsize='xx-large')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"6c1375c3-bdc6-445a-9274-ddc7985cab27\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### CGCNN\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"id\": \"e48af7ca-9808-4227-bed7-e98ca685b7f9\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import torch\\n\",\n    \"\\n\",\n    \"from torch.utils.data import DataLoader\\n\",\n    \"from xenonpy.descriptor import Compositions, CrystalGraphFeaturizer\\n\",\n    \"from xenonpy.datatools import Splitter\\n\",\n    \"from itertools import product\\n\",\n    \"\\n\",\n    \"from xenonpy.model.utils import regression_metrics\\n\",\n    \"from xenonpy.model.training import Trainer, MSELoss, Adam, ClipValue\\n\",\n    \"from xenonpy.model.training.extension import Validator, TensorConverter\\n\",\n    \"from xenonpy.model.training.dataset import CrystalGraphDataset\\n\",\n    \"from xenonpy.model import CrystalGraphConvNet\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"id\": \"7bcbce1c-38f1-41c8-b44c-b874cf011f25\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# params = [0.01, 0.008, 0.006, 0.004, 0.002]\\n\",\n    \"params = [0.01]\\n\",\n    \"epochs = 400\\n\",\n    \"model_params = {'orig_atom_fea_len': 92,\\n\",\n    \" 'nbr_fea_len': 41,\\n\",\n    \" 'atom_fea_len': 64,\\n\",\n    \" 'n_conv': 4,\\n\",\n    \" 'h_fea_len': 32,\\n\",\n    \" 'n_h': 1}\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 13,\n   \"id\": \"242f07dc-69cf-43d5-a978-e3988c18183d\",\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 6.01 s, sys: 715 ms, total: 6.72 s\\n\",\n      \"Wall time: 28.9 s\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>atom_feature</th>\\n\",\n       \"      <th>neighbor_feature</th>\\n\",\n       \"      <th>neighbor_idx</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1013558</th>\\n\",\n       \"      <td>[[tensor(0.), tensor(0.), tensor(1.), tensor(0...</td>\\n\",\n       \"      <td>[[[tensor(0.), tensor(0.), tensor(0.), tensor(...</td>\\n\",\n       \"      <td>[[tensor(4), tensor(4), tensor(1), tensor(2), ...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1018025</th>\\n\",\n       \"      <td>[[tensor(0.), tensor(0.), tensor(0.), tensor(1...</td>\\n\",\n       \"      <td>[[[tensor(0.), tensor(2.8026e-45), tensor(5.05...</td>\\n\",\n       \"      <td>[[tensor(3), tensor(2), tensor(3), tensor(2), ...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1019105</th>\\n\",\n       \"      <td>[[tensor(0.), tensor(1.), tensor(0.), tensor(0...</td>\\n\",\n       \"      <td>[[[tensor(0.), tensor(0.), tensor(0.), tensor(...</td>\\n\",\n       \"      <td>[[tensor(5), tensor(5), tensor(5), tensor(5), ...</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                                 atom_feature  \\\\\\n\",\n       \"mp-1013558  [[tensor(0.), tensor(0.), tensor(1.), tensor(0...   \\n\",\n       \"mp-1018025  [[tensor(0.), tensor(0.), tensor(0.), tensor(1...   \\n\",\n       \"mp-1019105  [[tensor(0.), tensor(1.), tensor(0.), tensor(0...   \\n\",\n       \"\\n\",\n       \"                                             neighbor_feature  \\\\\\n\",\n       \"mp-1013558  [[[tensor(0.), tensor(0.), tensor(0.), tensor(...   \\n\",\n       \"mp-1018025  [[[tensor(0.), tensor(2.8026e-45), tensor(5.05...   \\n\",\n       \"mp-1019105  [[[tensor(0.), tensor(0.), tensor(0.), tensor(...   \\n\",\n       \"\\n\",\n       \"                                                 neighbor_idx  \\n\",\n       \"mp-1013558  [[tensor(4), tensor(4), tensor(1), tensor(2), ...  \\n\",\n       \"mp-1018025  [[tensor(3), tensor(2), tensor(3), tensor(2), ...  \\n\",\n       \"mp-1019105  [[tensor(5), tensor(5), tensor(5), tensor(5), ...  \"\n      ]\n     },\n     \"execution_count\": 13,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"### prepare featurizer\\n\",\n    \"cg_featurizer = CrystalGraphFeaturizer(atom_feature='origin', radius=8, n_jobs=20)\\n\",\n    \"cg_features = cg_featurizer.transform(stable_data.structure)\\n\",\n    \"\\n\",\n    \"cg_features.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"id\": \"832f5c92-0280-4570-a8b9-55f266fc0414\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"## prepare training\\n\",\n    \"x_train, x_test = cg_features.loc[train_idx], cg_features.loc[test_idx]\\n\",\n    \"y_train, y_test = stable_data[props].loc[train_idx], stable_data[props].loc[test_idx]\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"id\": \"0abd5806-a884-4864-9f8c-c5047f7d39b5\",\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"====== lr: 0.01; clip: 0.01 ===========\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"9476fc7ed1f84b32b6aaec9d9a87ea76\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/400 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"====== lr: 0.01; clip: 0.01 ===========\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"e3fd43850eb54eca8b839997284f5464\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/400 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 21 iterations, finish training at iteration 183\\n\",\n      \"====== lr: 0.01; clip: 0.01 ===========\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"9a9c73a5d56d49a096f861542b8bb330\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/400 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 21 iterations, finish training at iteration 198\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"## set training parameters\\n\",\n    \"import warnings\\n\",\n    \"warnings.filterwarnings('ignore')\\n\",\n    \"\\n\",\n    \"cuda = torch.cuda.is_available()  # GPU計算を行うか否か．CPUのみでも計算可能だが，かなり効率が悪い．\\n\",\n    \"summary = []\\n\",\n    \"\\n\",\n    \"for prop in props:\\n\",\n    \"    train_dataloader = DataLoader(CrystalGraphDataset(x_train, y_train[[prop]]), shuffle=True,\\n\",\n    \"                                  batch_size=2000, collate_fn=CrystalGraphDataset.collate_fn)\\n\",\n    \"    val_dataloader = DataLoader(CrystalGraphDataset(x_test, y_test[[prop]]), shuffle=False,\\n\",\n    \"                                  batch_size=2000, collate_fn=CrystalGraphDataset.collate_fn)\\n\",\n    \"    \\n\",\n    \"    ## training\\n\",\n    \"    for lr, clip in product(params, params):\\n\",\n    \"        model = CrystalGraphConvNet(**model_params)\\n\",\n    \"\\n\",\n    \"        trainer = Trainer(\\n\",\n    \"            model=model,\\n\",\n    \"            cuda=cuda,\\n\",\n    \"            optimizer=Adam(lr=lr),\\n\",\n    \"            loss_func=MSELoss(),\\n\",\n    \"            clip_grad=ClipValue(clip)\\n\",\n    \"        ).extend(\\n\",\n    \"            TensorConverter(empty_cache=True),\\n\",\n    \"            Validator(metrics_func=regression_metrics, early_stopping=20, trace_order=5, pearsonr=1.0, mse=0.0, r2=0.0, mae=0.0),\\n\",\n    \"        )\\n\",\n    \"\\n\",\n    \"        print(f\\\"====== lr: {lr}; clip: {clip} ===========\\\")\\n\",\n    \"        trainer.fit(training_dataset=train_dataloader, validation_dataset=val_dataloader, epochs=epochs, checkpoint=True)\\n\",\n    \"    \\n\",\n    \"        training_info = trainer.training_info\\n\",\n    \"\\n\",\n    \"        # draw OvP\\n\",\n    \"        y_pred, y_true = trainer.predict(dataset=val_dataloader, checkpoint='mae_1')\\n\",\n    \"        y_pred_fit, y_true_fit = trainer.predict(dataset=train_dataloader, checkpoint='mae_1')\\n\",\n    \"\\n\",\n    \"        pred, true = np.concatenate([y_pred, y_pred_fit]), np.concatenate([y_true, y_true_fit])\\n\",\n    \"        results = pd.DataFrame({prop: true.ravel(), f'{prop}_pred': pred.ravel()})\\n\",\n    \"        summary.append(results)\\n\",\n    \"\\n\",\n    \"results = pd.concat(summary, axis=1).assign(label=['Train']*train_idx.size + ['Test']*test_idx.size)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"id\": \"985352c8-933f-49be-bb85-daf5ee0e86d3\",\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 2400x750 with 3 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"fig, axs = plt.subplots(1, 3, figsize=(16, 5), dpi=150)\\n\",\n    \"plt.subplots_adjust(wspace=0.15)\\n\",\n    \"\\n\",\n    \"titles = {\\n\",\n    \"    'formation_energy_per_atom': 'E (eV)',\\n\",\n    \"    'density': r\\\"$\\\\rho$ (g/cm$^3$)\\\",\\n\",\n    \"    'band_gap': r\\\"$\\\\mathrm{E}_b$ (eV)\\\"\\n\",\n    \"}\\n\",\n    \"\\n\",\n    \"for i, (prop, ax) in enumerate(zip(props, axs)):\\n\",\n    \"    train_idx, test_idx = results[results.label == 'Train'].index, results[results.label == 'Test'].index\\n\",\n    \"    \\n\",\n    \"    pred = results[prop + '_pred'].loc[test_idx].values\\n\",\n    \"    pred_fit = results[prop + '_pred'].loc[train_idx].values\\n\",\n    \"    \\n\",\n    \"    true = results[prop].loc[test_idx].values\\n\",\n    \"    true_fit = results[prop].loc[train_idx].values\\n\",\n    \"    \\n\",\n    \"    with sns.axes_style(\\\"ticks\\\", rc={\\\"lines.linewidth\\\": 13, \\\"axes.labelsize\\\": \\\"large\\\"}):\\n\",\n    \"        ax = cv_plot(pred, true, pred_fit, true_fit,\\n\",\n    \"                     ax=ax, color_style=True, title=titles[prop],\\n\",\n    \"                     show_legend=True if i == 0 else False, show_label=False)\\n\",\n    \"        \\n\",\n    \"        if i == 0:\\n\",\n    \"            _ = ax.set_ylabel('Observation', fontsize='xx-large')\\n\",\n    \"        _ = ax.set_xlabel('Prediction', fontsize='xx-large')\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"id\": \"5810c061\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"interpreter\": {\n   \"hash\": \"93169193031bed5a34de5405a805c1cdfe217db623a6098111020ecff952ad9d\"\n  },\n  \"kernelspec\": {\n   \"display_name\": \"Python 3.8.13 ('xepy38')\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.8.13\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 5\n}\n"
  },
  {
    "path": "mi_book/exercise_15.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"<a id='top'></a>\\n\",\n    \"\\n\",\n    \"### 演習15）\\n\",\n    \"\\n\",\n    \"この演習では，任意の化学組成が形成する三つの構造クラス(準結晶（QC）・近似結晶（AC）・通常の周期結晶（others）)を判別するモデルを構築する．\\n\",\n    \"\\n\",\n    \"この演習は一定数の結晶データが必要になる．[retrieve_materials_project](https://nbviewer.org/github/yoshida-lab/XenonPy/blob/master/MI_Book/retrieve_materials_project.ipynb)を参考してサンプルデータを用意せよ．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 30,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run common_setting.ipynb\\n\",\n    \"\\n\",\n    \"import pandas as pd\\n\",\n    \"import numpy as np\\n\",\n    \"\\n\",\n    \"from xenonpy.datatools import preset\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 訓練データ\\n\",\n    \"\\n\",\n    \"モデルを訓練するために，まず準結晶（QC），近似結晶（AC）とそれ以外（others）の組成データを読み込む．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>label</th>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>formula</th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Cr 5 Ni 3 Si 2</th>\\n\",\n       \"      <td>{'Cr': 5.0, 'Ni': 3.0, 'Si': 2.0}</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Mn 4 Si 1</th>\\n\",\n       \"      <td>{'Mn': 4.0, 'Si': 1.0}</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Mn 82 Si 15 Al 3</th>\\n\",\n       \"      <td>{'Mn': 82.0, 'Si': 15.0, 'Al': 3.0}</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Zn 58 Mg 40 Dy 2</th>\\n\",\n       \"      <td>{'Zn': 58.0, 'Mg': 40.0, 'Dy': 2.0}</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Zn 58 Mg 40 Er 2</th>\\n\",\n       \"      <td>{'Zn': 58.0, 'Mg': 40.0, 'Er': 2.0}</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Au 61.2 Sn 24.5 Eu 14.3</th>\\n\",\n       \"      <td>{'Au': 61.2, 'Sn': 24.5, 'Eu': 14.3}</td>\\n\",\n       \"      <td>AC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Ag 41 In 44 Yb 15</th>\\n\",\n       \"      <td>{'Ag': 41.0, 'In': 44.0, 'Yb': 15.0}</td>\\n\",\n       \"      <td>AC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Ag 42 In 45 Ca 13</th>\\n\",\n       \"      <td>{'Ag': 42.0, 'In': 45.0, 'Ca': 13.0}</td>\\n\",\n       \"      <td>AC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Cd 76 Ca 13</th>\\n\",\n       \"      <td>{'Cd': 76.0, 'Ca': 13.0}</td>\\n\",\n       \"      <td>AC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Ag 43.4 In 42.8 Eu 13.8</th>\\n\",\n       \"      <td>{'Ag': 43.4, 'In': 42.8, 'Eu': 13.8}</td>\\n\",\n       \"      <td>AC</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>158 rows × 2 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                                  composition label\\n\",\n       \"formula                                                            \\n\",\n       \"Cr 5 Ni 3 Si 2              {'Cr': 5.0, 'Ni': 3.0, 'Si': 2.0}    QC\\n\",\n       \"Mn 4 Si 1                              {'Mn': 4.0, 'Si': 1.0}    QC\\n\",\n       \"Mn 82 Si 15 Al 3          {'Mn': 82.0, 'Si': 15.0, 'Al': 3.0}    QC\\n\",\n       \"Zn 58 Mg 40 Dy 2          {'Zn': 58.0, 'Mg': 40.0, 'Dy': 2.0}    QC\\n\",\n       \"Zn 58 Mg 40 Er 2          {'Zn': 58.0, 'Mg': 40.0, 'Er': 2.0}    QC\\n\",\n       \"...                                                       ...   ...\\n\",\n       \"Au 61.2 Sn 24.5 Eu 14.3  {'Au': 61.2, 'Sn': 24.5, 'Eu': 14.3}    AC\\n\",\n       \"Ag 41 In 44 Yb 15        {'Ag': 41.0, 'In': 44.0, 'Yb': 15.0}    AC\\n\",\n       \"Ag 42 In 45 Ca 13        {'Ag': 42.0, 'In': 45.0, 'Ca': 13.0}    AC\\n\",\n       \"Cd 76 Ca 13                          {'Cd': 76.0, 'Ca': 13.0}    AC\\n\",\n       \"Ag 43.4 In 42.8 Eu 13.8  {'Ag': 43.4, 'In': 42.8, 'Eu': 13.8}    AC\\n\",\n       \"\\n\",\n       \"[158 rows x 2 columns]\"\n      ]\n     },\n     \"execution_count\": 15,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>label</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1013558</th>\\n\",\n       \"      <td>{'Ca': 3.0, 'Bi': 1.0, 'P': 1.0}</td>\\n\",\n       \"      <td>others</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1018025</th>\\n\",\n       \"      <td>{'Lu': 1.0, 'Ag': 1.0, 'O': 2.0}</td>\\n\",\n       \"      <td>others</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1019105</th>\\n\",\n       \"      <td>{'K': 2.0, 'Mg': 2.0, 'Bi': 2.0}</td>\\n\",\n       \"      <td>others</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1020108</th>\\n\",\n       \"      <td>{'Li': 2.0, 'Ca': 2.0, 'Mg': 2.0, 'Si': 2.0, '...</td>\\n\",\n       \"      <td>others</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1029828</th>\\n\",\n       \"      <td>{'Rb': 8.0, 'Cr': 8.0, 'N': 16.0}</td>\\n\",\n       \"      <td>others</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-976578</th>\\n\",\n       \"      <td>{'Nd': 6.0, 'H': 18.0}</td>\\n\",\n       \"      <td>others</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-9856</th>\\n\",\n       \"      <td>{'Cs': 4.0, 'Zr': 2.0, 'Se': 6.0}</td>\\n\",\n       \"      <td>others</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-985829</th>\\n\",\n       \"      <td>{'Hf': 1.0, 'S': 2.0}</td>\\n\",\n       \"      <td>others</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-989541</th>\\n\",\n       \"      <td>{'Rb': 2.0, 'Na': 1.0, 'Sb': 1.0, 'F': 6.0}</td>\\n\",\n       \"      <td>others</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-998778</th>\\n\",\n       \"      <td>{'Rb': 4.0, 'Sn': 4.0, 'Br': 12.0}</td>\\n\",\n       \"      <td>others</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>2000 rows × 2 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                                  composition   label\\n\",\n       \"mp-1013558                   {'Ca': 3.0, 'Bi': 1.0, 'P': 1.0}  others\\n\",\n       \"mp-1018025                   {'Lu': 1.0, 'Ag': 1.0, 'O': 2.0}  others\\n\",\n       \"mp-1019105                   {'K': 2.0, 'Mg': 2.0, 'Bi': 2.0}  others\\n\",\n       \"mp-1020108  {'Li': 2.0, 'Ca': 2.0, 'Mg': 2.0, 'Si': 2.0, '...  others\\n\",\n       \"mp-1029828                  {'Rb': 8.0, 'Cr': 8.0, 'N': 16.0}  others\\n\",\n       \"...                                                       ...     ...\\n\",\n       \"mp-976578                              {'Nd': 6.0, 'H': 18.0}  others\\n\",\n       \"mp-9856                     {'Cs': 4.0, 'Zr': 2.0, 'Se': 6.0}  others\\n\",\n       \"mp-985829                               {'Hf': 1.0, 'S': 2.0}  others\\n\",\n       \"mp-989541         {'Rb': 2.0, 'Na': 1.0, 'Sb': 1.0, 'F': 6.0}  others\\n\",\n       \"mp-998778                  {'Rb': 4.0, 'Sn': 4.0, 'Br': 12.0}  others\\n\",\n       \"\\n\",\n       \"[2000 rows x 2 columns]\"\n      ]\n     },\n     \"execution_count\": 15,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"quasi = pd.read_pickle('data/QC_AC_data.pd.xz')  # 準結晶・近似結晶データ\\n\",\n    \"crystal = preset.mp_samples  # 準結晶・近似結晶データ\\n\",\n    \"crystal = crystal[['composition']].assign(label='others')\\n\",\n    \"\\n\",\n    \"quasi\\n\",\n    \"crystal\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 組成記述子を計算する\\n\",\n    \"\\n\",\n    \"演習12）述べたように，`xenonpy.descriptor.Compositions`を用いて記述子を計算する．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"\\u001b[0;31mInit signature:\\u001b[0m\\n\",\n      \"\\u001b[0mCompositions\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m*\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m    \\u001b[0melemental_info\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mpandas\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mcore\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mframe\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mDataFrame\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m    \\u001b[0mn_jobs\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mint\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;34m-\\u001b[0m\\u001b[0;36m1\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m    \\u001b[0mfeaturizers\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mstr\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mList\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mstr\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;34m'classic'\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m    \\u001b[0mon_errors\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mstr\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;34m'nan'\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n      \"\\u001b[0;31mDocstring:\\u001b[0m      Calculate elemental descriptors from compound's composition.\\n\",\n      \"\\u001b[0;31mInit docstring:\\u001b[0m\\n\",\n      \"Parameters\\n\",\n      \"----------\\n\",\n      \"elemental_info\\n\",\n      \"    Elemental level information for each element. For example, the ``atomic number``,\\n\",\n      \"    ``atomic radius``, and etc. By default (``None``), will use the XenonPy embedded information.\\n\",\n      \"n_jobs: int\\n\",\n      \"    The number of jobs to run in parallel for both fit and predict.\\n\",\n      \"    Set -1 to use all cpu cores (default).\\n\",\n      \"    Inputs ``X`` will be split into some blocks then run on each cpu cores.\\n\",\n      \"featurizers: Union[str, List[str]]\\n\",\n      \"    Name of featurizers that will be used.\\n\",\n      \"    Set to `classic` to be compatible with the old version.\\n\",\n      \"    This is equal to set ``featurizers=['WeightedAverage', 'WeightedSum',\\n\",\n      \"    'WeightedVariance', 'MaxPooling', 'MinPooling']``.\\n\",\n      \"    Default is 'all'.\\n\",\n      \"on_errors: string\\n\",\n      \"    How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\\n\",\n      \"    When 'nan', return a column with ``np.nan``.\\n\",\n      \"    The length of column corresponding to the number of feature labs.\\n\",\n      \"    When 'keep', return a column with exception objects.\\n\",\n      \"    The default is 'nan' which will raise up the exception.\\n\",\n      \"\\u001b[0;31mFile:\\u001b[0m           ~/mambaforge/envs/xepy38/lib/python3.8/site-packages/xenonpy/descriptor/compositions.py\\n\",\n      \"\\u001b[0;31mType:\\u001b[0m           TimedMetaClass\\n\",\n      \"\\u001b[0;31mSubclasses:\\u001b[0m     \\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import Compositions\\n\",\n    \"\\n\",\n    \"Compositions?\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"まずはQC，ACとothersのデータを合併する．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 17,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>label</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-989555</th>\\n\",\n       \"      <td>{'Tl': 2.0, 'In': 1.0, 'Ga': 1.0, 'F': 6.0}</td>\\n\",\n       \"      <td>others</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Al 71.5 Cu 8.5 Ru 20</th>\\n\",\n       \"      <td>{'Al': 71.5, 'Cu': 8.5, 'Ru': 20.0}</td>\\n\",\n       \"      <td>AC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-30056</th>\\n\",\n       \"      <td>{'Cs': 1.0, 'Ca': 1.0, 'Br': 3.0}</td>\\n\",\n       \"      <td>others</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                                      composition   label\\n\",\n       \"mp-989555             {'Tl': 2.0, 'In': 1.0, 'Ga': 1.0, 'F': 6.0}  others\\n\",\n       \"Al 71.5 Cu 8.5 Ru 20          {'Al': 71.5, 'Cu': 8.5, 'Ru': 20.0}      AC\\n\",\n       \"mp-30056                        {'Cs': 1.0, 'Ca': 1.0, 'Br': 3.0}  others\"\n      ]\n     },\n     \"execution_count\": 17,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"training_data = pd.concat([quasi, crystal])\\n\",\n    \"training_data.sample(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"教科書で説明したように，QC・ACデータの組成式は原子総数が100になっていると比べ，othersの組成式の原子総数にかなりのバラツキがある．このバラツキに影響しない`WeightedAverage`, `WeightedVariance`, `MaxPooling`と`MinPooling`記述子のみ採用する．\\n\",\n    \"\\n\",\n    \"下記計算数分かかる場合もある．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 1.93 s, sys: 624 ms, total: 2.55 s\\n\",\n      \"Wall time: 9.64 s\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Cr 5 Ni 3 Si 2</th>\\n\",\n       \"      <td>23.200000</td>\\n\",\n       \"      <td>128.600000</td>\\n\",\n       \"      <td>228.600000</td>\\n\",\n       \"      <td>8.015000</td>\\n\",\n       \"      <td>49.223070</td>\\n\",\n       \"      <td>2899.600000</td>\\n\",\n       \"      <td>154.000000</td>\\n\",\n       \"      <td>534.000000</td>\\n\",\n       \"      <td>128.900000</td>\\n\",\n       \"      <td>117.200000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.443</td>\\n\",\n       \"      <td>91.0000</td>\\n\",\n       \"      <td>197.0</td>\\n\",\n       \"      <td>219.0</td>\\n\",\n       \"      <td>222.0</td>\\n\",\n       \"      <td>283.4</td>\\n\",\n       \"      <td>2200.000000</td>\\n\",\n       \"      <td>5.530000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Mn 4 Si 1</th>\\n\",\n       \"      <td>22.800000</td>\\n\",\n       \"      <td>134.400000</td>\\n\",\n       \"      <td>240.000000</td>\\n\",\n       \"      <td>8.332000</td>\\n\",\n       \"      <td>49.567435</td>\\n\",\n       \"      <td>2313.600000</td>\\n\",\n       \"      <td>116.000000</td>\\n\",\n       \"      <td>569.600000</td>\\n\",\n       \"      <td>142.200000</td>\\n\",\n       \"      <td>118.400000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.477</td>\\n\",\n       \"      <td>7.8000</td>\\n\",\n       \"      <td>205.0</td>\\n\",\n       \"      <td>219.0</td>\\n\",\n       \"      <td>224.0</td>\\n\",\n       \"      <td>296.1</td>\\n\",\n       \"      <td>2200.000000</td>\\n\",\n       \"      <td>5.530000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Mn 82 Si 15 Al 3</th>\\n\",\n       \"      <td>22.990000</td>\\n\",\n       \"      <td>134.790000</td>\\n\",\n       \"      <td>240.410000</td>\\n\",\n       \"      <td>8.174800</td>\\n\",\n       \"      <td>50.071392</td>\\n\",\n       \"      <td>2309.100000</td>\\n\",\n       \"      <td>115.680000</td>\\n\",\n       \"      <td>582.500000</td>\\n\",\n       \"      <td>143.280000</td>\\n\",\n       \"      <td>118.760000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.477</td>\\n\",\n       \"      <td>7.8000</td>\\n\",\n       \"      <td>184.0</td>\\n\",\n       \"      <td>219.0</td>\\n\",\n       \"      <td>224.0</td>\\n\",\n       \"      <td>296.1</td>\\n\",\n       \"      <td>2200.000000</td>\\n\",\n       \"      <td>5.530000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Zn 58 Mg 40 Dy 2</th>\\n\",\n       \"      <td>23.520000</td>\\n\",\n       \"      <td>147.640000</td>\\n\",\n       \"      <td>230.260000</td>\\n\",\n       \"      <td>11.316000</td>\\n\",\n       \"      <td>50.892400</td>\\n\",\n       \"      <td>1286.300000</td>\\n\",\n       \"      <td>59.420000</td>\\n\",\n       \"      <td>460.280000</td>\\n\",\n       \"      <td>131.000000</td>\\n\",\n       \"      <td>127.380000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.173</td>\\n\",\n       \"      <td>11.0000</td>\\n\",\n       \"      <td>173.0</td>\\n\",\n       \"      <td>239.0</td>\\n\",\n       \"      <td>229.0</td>\\n\",\n       \"      <td>276.3</td>\\n\",\n       \"      <td>2710.000000</td>\\n\",\n       \"      <td>5.750000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Zn 58 Mg 40 Er 2</th>\\n\",\n       \"      <td>23.560000</td>\\n\",\n       \"      <td>147.600000</td>\\n\",\n       \"      <td>230.200000</td>\\n\",\n       \"      <td>11.304000</td>\\n\",\n       \"      <td>50.987580</td>\\n\",\n       \"      <td>1292.320000</td>\\n\",\n       \"      <td>59.480000</td>\\n\",\n       \"      <td>454.680000</td>\\n\",\n       \"      <td>130.940000</td>\\n\",\n       \"      <td>127.340000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.168</td>\\n\",\n       \"      <td>15.0000</td>\\n\",\n       \"      <td>173.0</td>\\n\",\n       \"      <td>239.0</td>\\n\",\n       \"      <td>229.0</td>\\n\",\n       \"      <td>276.3</td>\\n\",\n       \"      <td>2830.000000</td>\\n\",\n       \"      <td>5.750000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-976578</th>\\n\",\n       \"      <td>15.750000</td>\\n\",\n       \"      <td>104.750000</td>\\n\",\n       \"      <td>186.500000</td>\\n\",\n       \"      <td>15.725000</td>\\n\",\n       \"      <td>36.816500</td>\\n\",\n       \"      <td>850.460000</td>\\n\",\n       \"      <td>50.599730</td>\\n\",\n       \"      <td>894.882500</td>\\n\",\n       \"      <td>73.500000</td>\\n\",\n       \"      <td>67.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.205</td>\\n\",\n       \"      <td>0.1805</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>1270.000000</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-9856</th>\\n\",\n       \"      <td>42.000000</td>\\n\",\n       \"      <td>185.666667</td>\\n\",\n       \"      <td>239.666667</td>\\n\",\n       \"      <td>33.933333</td>\\n\",\n       \"      <td>98.991317</td>\\n\",\n       \"      <td>1571.250000</td>\\n\",\n       \"      <td>33.436636</td>\\n\",\n       \"      <td>2563.166667</td>\\n\",\n       \"      <td>170.500000</td>\\n\",\n       \"      <td>161.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>4.0</td>\\n\",\n       \"      <td>0.241</td>\\n\",\n       \"      <td>0.5200</td>\\n\",\n       \"      <td>190.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>229.0</td>\\n\",\n       \"      <td>312.4</td>\\n\",\n       \"      <td>2177.277969</td>\\n\",\n       \"      <td>3.770000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-985829</th>\\n\",\n       \"      <td>34.666667</td>\\n\",\n       \"      <td>140.333333</td>\\n\",\n       \"      <td>230.666667</td>\\n\",\n       \"      <td>14.866667</td>\\n\",\n       \"      <td>80.870000</td>\\n\",\n       \"      <td>2301.882667</td>\\n\",\n       \"      <td>41.800000</td>\\n\",\n       \"      <td>440.000000</td>\\n\",\n       \"      <td>128.333333</td>\\n\",\n       \"      <td>119.333333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.146</td>\\n\",\n       \"      <td>0.2050</td>\\n\",\n       \"      <td>180.0</td>\\n\",\n       \"      <td>189.0</td>\\n\",\n       \"      <td>215.0</td>\\n\",\n       \"      <td>314.1</td>\\n\",\n       \"      <td>3010.000000</td>\\n\",\n       \"      <td>2.900000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-989541</th>\\n\",\n       \"      <td>19.000000</td>\\n\",\n       \"      <td>164.914169</td>\\n\",\n       \"      <td>192.900000</td>\\n\",\n       \"      <td>25.650000</td>\\n\",\n       \"      <td>42.967579</td>\\n\",\n       \"      <td>549.616000</td>\\n\",\n       \"      <td>33.409364</td>\\n\",\n       \"      <td>1145.520000</td>\\n\",\n       \"      <td>108.700000</td>\\n\",\n       \"      <td>109.900000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.205</td>\\n\",\n       \"      <td>0.0277</td>\\n\",\n       \"      <td>147.0</td>\\n\",\n       \"      <td>146.0</td>\\n\",\n       \"      <td>171.0</td>\\n\",\n       \"      <td>298.3</td>\\n\",\n       \"      <td>1300.000000</td>\\n\",\n       \"      <td>0.557000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-998778</th>\\n\",\n       \"      <td>38.400000</td>\\n\",\n       \"      <td>176.533185</td>\\n\",\n       \"      <td>229.000000</td>\\n\",\n       \"      <td>28.540000</td>\\n\",\n       \"      <td>88.777960</td>\\n\",\n       \"      <td>899.940000</td>\\n\",\n       \"      <td>13.240000</td>\\n\",\n       \"      <td>1187.200000</td>\\n\",\n       \"      <td>143.800000</td>\\n\",\n       \"      <td>138.400000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>4.0</td>\\n\",\n       \"      <td>0.222</td>\\n\",\n       \"      <td>0.1200</td>\\n\",\n       \"      <td>185.0</td>\\n\",\n       \"      <td>186.0</td>\\n\",\n       \"      <td>222.0</td>\\n\",\n       \"      <td>411.4</td>\\n\",\n       \"      <td>1300.000000</td>\\n\",\n       \"      <td>3.050000</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>2158 rows × 232 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                  ave:atomic_number  ave:atomic_radius  \\\\\\n\",\n       \"Cr 5 Ni 3 Si 2            23.200000         128.600000   \\n\",\n       \"Mn 4 Si 1                 22.800000         134.400000   \\n\",\n       \"Mn 82 Si 15 Al 3          22.990000         134.790000   \\n\",\n       \"Zn 58 Mg 40 Dy 2          23.520000         147.640000   \\n\",\n       \"Zn 58 Mg 40 Er 2          23.560000         147.600000   \\n\",\n       \"...                             ...                ...   \\n\",\n       \"mp-976578                 15.750000         104.750000   \\n\",\n       \"mp-9856                   42.000000         185.666667   \\n\",\n       \"mp-985829                 34.666667         140.333333   \\n\",\n       \"mp-989541                 19.000000         164.914169   \\n\",\n       \"mp-998778                 38.400000         176.533185   \\n\",\n       \"\\n\",\n       \"                  ave:atomic_radius_rahm  ave:atomic_volume  \\\\\\n\",\n       \"Cr 5 Ni 3 Si 2                228.600000           8.015000   \\n\",\n       \"Mn 4 Si 1                     240.000000           8.332000   \\n\",\n       \"Mn 82 Si 15 Al 3              240.410000           8.174800   \\n\",\n       \"Zn 58 Mg 40 Dy 2              230.260000          11.316000   \\n\",\n       \"Zn 58 Mg 40 Er 2              230.200000          11.304000   \\n\",\n       \"...                                  ...                ...   \\n\",\n       \"mp-976578                     186.500000          15.725000   \\n\",\n       \"mp-9856                       239.666667          33.933333   \\n\",\n       \"mp-985829                     230.666667          14.866667   \\n\",\n       \"mp-989541                     192.900000          25.650000   \\n\",\n       \"mp-998778                     229.000000          28.540000   \\n\",\n       \"\\n\",\n       \"                  ave:atomic_weight  ave:boiling_point  ave:bulk_modulus  \\\\\\n\",\n       \"Cr 5 Ni 3 Si 2            49.223070        2899.600000        154.000000   \\n\",\n       \"Mn 4 Si 1                 49.567435        2313.600000        116.000000   \\n\",\n       \"Mn 82 Si 15 Al 3          50.071392        2309.100000        115.680000   \\n\",\n       \"Zn 58 Mg 40 Dy 2          50.892400        1286.300000         59.420000   \\n\",\n       \"Zn 58 Mg 40 Er 2          50.987580        1292.320000         59.480000   \\n\",\n       \"...                             ...                ...               ...   \\n\",\n       \"mp-976578                 36.816500         850.460000         50.599730   \\n\",\n       \"mp-9856                   98.991317        1571.250000         33.436636   \\n\",\n       \"mp-985829                 80.870000        2301.882667         41.800000   \\n\",\n       \"mp-989541                 42.967579         549.616000         33.409364   \\n\",\n       \"mp-998778                 88.777960         899.940000         13.240000   \\n\",\n       \"\\n\",\n       \"                    ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"Cr 5 Ni 3 Si 2     534.000000                   128.900000   \\n\",\n       \"Mn 4 Si 1          569.600000                   142.200000   \\n\",\n       \"Mn 82 Si 15 Al 3   582.500000                   143.280000   \\n\",\n       \"Zn 58 Mg 40 Dy 2   460.280000                   131.000000   \\n\",\n       \"Zn 58 Mg 40 Er 2   454.680000                   130.940000   \\n\",\n       \"...                       ...                          ...   \\n\",\n       \"mp-976578          894.882500                    73.500000   \\n\",\n       \"mp-9856           2563.166667                   170.500000   \\n\",\n       \"mp-985829          440.000000                   128.333333   \\n\",\n       \"mp-989541         1145.520000                   108.700000   \\n\",\n       \"mp-998778         1187.200000                   143.800000   \\n\",\n       \"\\n\",\n       \"                  ave:covalent_radius_pyykko  ...  min:num_s_valence  \\\\\\n\",\n       \"Cr 5 Ni 3 Si 2                    117.200000  ...                1.0   \\n\",\n       \"Mn 4 Si 1                         118.400000  ...                2.0   \\n\",\n       \"Mn 82 Si 15 Al 3                  118.760000  ...                2.0   \\n\",\n       \"Zn 58 Mg 40 Dy 2                  127.380000  ...                2.0   \\n\",\n       \"Zn 58 Mg 40 Er 2                  127.340000  ...                2.0   \\n\",\n       \"...                                      ...  ...                ...   \\n\",\n       \"mp-976578                          67.500000  ...                1.0   \\n\",\n       \"mp-9856                           161.000000  ...                1.0   \\n\",\n       \"mp-985829                         119.333333  ...                2.0   \\n\",\n       \"mp-989541                         109.900000  ...                1.0   \\n\",\n       \"mp-998778                         138.400000  ...                1.0   \\n\",\n       \"\\n\",\n       \"                  min:period  min:specific_heat  min:thermal_conductivity  \\\\\\n\",\n       \"Cr 5 Ni 3 Si 2           3.0              0.443                   91.0000   \\n\",\n       \"Mn 4 Si 1                3.0              0.477                    7.8000   \\n\",\n       \"Mn 82 Si 15 Al 3         3.0              0.477                    7.8000   \\n\",\n       \"Zn 58 Mg 40 Dy 2         3.0              0.173                   11.0000   \\n\",\n       \"Zn 58 Mg 40 Er 2         3.0              0.168                   15.0000   \\n\",\n       \"...                      ...                ...                       ...   \\n\",\n       \"mp-976578                1.0              0.205                    0.1805   \\n\",\n       \"mp-9856                  4.0              0.241                    0.5200   \\n\",\n       \"mp-985829                3.0              0.146                    0.2050   \\n\",\n       \"mp-989541                2.0              0.205                    0.0277   \\n\",\n       \"mp-998778                4.0              0.222                    0.1200   \\n\",\n       \"\\n\",\n       \"                  min:vdw_radius  min:vdw_radius_alvarez  min:vdw_radius_mm3  \\\\\\n\",\n       \"Cr 5 Ni 3 Si 2             197.0                   219.0               222.0   \\n\",\n       \"Mn 4 Si 1                  205.0                   219.0               224.0   \\n\",\n       \"Mn 82 Si 15 Al 3           184.0                   219.0               224.0   \\n\",\n       \"Zn 58 Mg 40 Dy 2           173.0                   239.0               229.0   \\n\",\n       \"Zn 58 Mg 40 Er 2           173.0                   239.0               229.0   \\n\",\n       \"...                          ...                     ...                 ...   \\n\",\n       \"mp-976578                  110.0                   120.0               162.0   \\n\",\n       \"mp-9856                    190.0                   182.0               229.0   \\n\",\n       \"mp-985829                  180.0                   189.0               215.0   \\n\",\n       \"mp-989541                  147.0                   146.0               171.0   \\n\",\n       \"mp-998778                  185.0                   186.0               222.0   \\n\",\n       \"\\n\",\n       \"                  min:vdw_radius_uff  min:sound_velocity  min:Polarizability  \\n\",\n       \"Cr 5 Ni 3 Si 2                 283.4         2200.000000            5.530000  \\n\",\n       \"Mn 4 Si 1                      296.1         2200.000000            5.530000  \\n\",\n       \"Mn 82 Si 15 Al 3               296.1         2200.000000            5.530000  \\n\",\n       \"Zn 58 Mg 40 Dy 2               276.3         2710.000000            5.750000  \\n\",\n       \"Zn 58 Mg 40 Er 2               276.3         2830.000000            5.750000  \\n\",\n       \"...                              ...                 ...                 ...  \\n\",\n       \"mp-976578                      288.6         1270.000000            0.666793  \\n\",\n       \"mp-9856                        312.4         2177.277969            3.770000  \\n\",\n       \"mp-985829                      314.1         3010.000000            2.900000  \\n\",\n       \"mp-989541                      298.3         1300.000000            0.557000  \\n\",\n       \"mp-998778                      411.4         1300.000000            3.050000  \\n\",\n       \"\\n\",\n       \"[2158 rows x 232 columns]\"\n      ]\n     },\n     \"execution_count\": 18,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"featurizers = ['WeightedAverage', 'WeightedVariance', 'MaxPooling', 'MinPooling']\\n\",\n    \"\\n\",\n    \"compositions = Compositions(featurizers=featurizers)  # use specific featurizers\\n\",\n    \"comp_desc = compositions.fit_transform(training_data)\\n\",\n    \"comp_desc\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### モデルを訓練する\\n\",\n    \"\\n\",\n    \"これから，用意されたデータを`xenonpy.datatools.Splitter`を用いて訓練データとテストデータに分けてモデルを訓練する．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 19,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"\\u001b[0;31mInit signature:\\u001b[0m\\n\",\n      \"\\u001b[0mSplitter\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m    \\u001b[0msize\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m*\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m    \\u001b[0mtest_size\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mfloat\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mint\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;36m0.2\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m    \\u001b[0mk_fold\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mIterable\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m    \\u001b[0mrandom_state\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m    \\u001b[0mshuffle\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mbool\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mTrue\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n      \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n      \"\\u001b[0;31mDocstring:\\u001b[0m      Data splitter for train and test\\n\",\n      \"\\u001b[0;31mInit docstring:\\u001b[0m\\n\",\n      \"Parameters\\n\",\n      \"----------\\n\",\n      \"size\\n\",\n      \"    Total sample size.\\n\",\n      \"    All data must have same length of their first dim,\\n\",\n      \"test_size\\n\",\n      \"    If float, should be between ``0.0`` and ``1.0`` and represent the proportion\\n\",\n      \"    of the dataset to include in the test split. If int, represents the\\n\",\n      \"    absolute number of test samples. Can be ``0`` if cv is ``None``.\\n\",\n      \"    In this case, :meth:`~Splitter.cv` will yield a tuple only contains ``training`` and ``validation``\\n\",\n      \"    on each step. By default, the value is set to 0.2.\\n\",\n      \"k_fold\\n\",\n      \"    Number of k-folds.\\n\",\n      \"    If ``int``, Must be at least 2.\\n\",\n      \"    If ``Iterable``, it should provide label for each element which will be used for group cv.\\n\",\n      \"    In this case, the input of :meth:`~Splitter.cv` must be a :class:`pandas.DataFrame` object.\\n\",\n      \"    Default value is None to specify no cv.\\n\",\n      \"random_state\\n\",\n      \"    If int, random_state is the seed used by the random number generator;\\n\",\n      \"    Default is None.\\n\",\n      \"shuffle\\n\",\n      \"    Whether or not to shuffle the data before splitting.\\n\",\n      \"\\u001b[0;31mFile:\\u001b[0m           ~/mambaforge/envs/xepy38/lib/python3.8/site-packages/xenonpy/datatools/splitter.py\\n\",\n      \"\\u001b[0;31mType:\\u001b[0m           type\\n\",\n      \"\\u001b[0;31mSubclasses:\\u001b[0m     \\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.datatools import Splitter\\n\",\n    \"Splitter?\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 20,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<style>#sk-container-id-1 {color: black;background-color: white;}#sk-container-id-1 pre{padding: 0;}#sk-container-id-1 div.sk-toggleable {background-color: white;}#sk-container-id-1 label.sk-toggleable__label {cursor: pointer;display: block;width: 100%;margin-bottom: 0;padding: 0.3em;box-sizing: border-box;text-align: center;}#sk-container-id-1 label.sk-toggleable__label-arrow:before {content: \\\"▸\\\";float: left;margin-right: 0.25em;color: #696969;}#sk-container-id-1 label.sk-toggleable__label-arrow:hover:before {color: black;}#sk-container-id-1 div.sk-estimator:hover label.sk-toggleable__label-arrow:before {color: black;}#sk-container-id-1 div.sk-toggleable__content {max-height: 0;max-width: 0;overflow: hidden;text-align: left;background-color: #f0f8ff;}#sk-container-id-1 div.sk-toggleable__content pre {margin: 0.2em;color: black;border-radius: 0.25em;background-color: #f0f8ff;}#sk-container-id-1 input.sk-toggleable__control:checked~div.sk-toggleable__content {max-height: 200px;max-width: 100%;overflow: auto;}#sk-container-id-1 input.sk-toggleable__control:checked~label.sk-toggleable__label-arrow:before {content: \\\"▾\\\";}#sk-container-id-1 div.sk-estimator input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-1 div.sk-label input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-1 input.sk-hidden--visually {border: 0;clip: rect(1px 1px 1px 1px);clip: rect(1px, 1px, 1px, 1px);height: 1px;margin: -1px;overflow: hidden;padding: 0;position: absolute;width: 1px;}#sk-container-id-1 div.sk-estimator {font-family: monospace;background-color: #f0f8ff;border: 1px dotted black;border-radius: 0.25em;box-sizing: border-box;margin-bottom: 0.5em;}#sk-container-id-1 div.sk-estimator:hover {background-color: #d4ebff;}#sk-container-id-1 div.sk-parallel-item::after {content: \\\"\\\";width: 100%;border-bottom: 1px solid gray;flex-grow: 1;}#sk-container-id-1 div.sk-label:hover label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-1 div.sk-serial::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: 0;}#sk-container-id-1 div.sk-serial {display: flex;flex-direction: column;align-items: center;background-color: white;padding-right: 0.2em;padding-left: 0.2em;position: relative;}#sk-container-id-1 div.sk-item {position: relative;z-index: 1;}#sk-container-id-1 div.sk-parallel {display: flex;align-items: stretch;justify-content: center;background-color: white;position: relative;}#sk-container-id-1 div.sk-item::before, #sk-container-id-1 div.sk-parallel-item::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: -1;}#sk-container-id-1 div.sk-parallel-item {display: flex;flex-direction: column;z-index: 1;position: relative;background-color: white;}#sk-container-id-1 div.sk-parallel-item:first-child::after {align-self: flex-end;width: 50%;}#sk-container-id-1 div.sk-parallel-item:last-child::after {align-self: flex-start;width: 50%;}#sk-container-id-1 div.sk-parallel-item:only-child::after {width: 0;}#sk-container-id-1 div.sk-dashed-wrapped {border: 1px dashed gray;margin: 0 0.4em 0.5em 0.4em;box-sizing: border-box;padding-bottom: 0.4em;background-color: white;}#sk-container-id-1 div.sk-label label {font-family: monospace;font-weight: bold;display: inline-block;line-height: 1.2em;}#sk-container-id-1 div.sk-label-container {text-align: center;}#sk-container-id-1 div.sk-container {/* jupyter's `normalize.less` sets `[hidden] { display: none; }` but bootstrap.min.css set `[hidden] { display: none !important; }` so we also need the `!important` here to be able to override the default hidden behavior on the sphinx rendered scikit-learn.org. See: https://github.com/scikit-learn/scikit-learn/issues/21755 */display: inline-block !important;position: relative;}#sk-container-id-1 div.sk-text-repr-fallback {display: none;}</style><div id=\\\"sk-container-id-1\\\" class=\\\"sk-top-container\\\"><div class=\\\"sk-text-repr-fallback\\\"><pre>Splitter(random_state=0, size=2158, test_size=0.3)</pre><b>In a Jupyter environment, please rerun this cell to show the HTML representation or trust the notebook. <br />On GitHub, the HTML representation is unable to render, please try loading this page with nbviewer.org.</b></div><div class=\\\"sk-container\\\" hidden><div class=\\\"sk-item\\\"><div class=\\\"sk-estimator sk-toggleable\\\"><input class=\\\"sk-toggleable__control sk-hidden--visually\\\" id=\\\"sk-estimator-id-1\\\" type=\\\"checkbox\\\" checked><label for=\\\"sk-estimator-id-1\\\" class=\\\"sk-toggleable__label sk-toggleable__label-arrow\\\">Splitter</label><div class=\\\"sk-toggleable__content\\\"><pre>Splitter(random_state=0, size=2158, test_size=0.3)</pre></div></div></div></div></div>\"\n      ],\n      \"text/plain\": [\n       \"Splitter(random_state=0, size=2158, test_size=0.3)\"\n      ]\n     },\n     \"execution_count\": 20,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"splitter = Splitter(size=comp_desc.shape[0], random_state=0, test_size=0.3)\\n\",\n    \"splitter\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 21,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(1510, 232)\"\n      ]\n     },\n     \"execution_count\": 21,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(1510,)\"\n      ]\n     },\n     \"execution_count\": 21,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(648, 232)\"\n      ]\n     },\n     \"execution_count\": 21,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(648,)\"\n      ]\n     },\n     \"execution_count\": 21,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"x_train, x_test, y_train, y_test = splitter.split(comp_desc, training_data.label)\\n\",\n    \"\\n\",\n    \"x_train.shape\\n\",\n    \"y_train.shape\\n\",\n    \"x_test.shape\\n\",\n    \"y_test.shape\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### ランダムフォレスト分類器\\n\",\n    \"\\n\",\n    \"この演習では，ハイパーパラメータのチューニングをしないようにしている．ハイパーパラメータのチューニングについて，[公式サイト](https://scikit-learn.org/stable/modules/grid_search.html) を参考してください．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 22,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<style>#sk-container-id-2 {color: black;background-color: white;}#sk-container-id-2 pre{padding: 0;}#sk-container-id-2 div.sk-toggleable {background-color: white;}#sk-container-id-2 label.sk-toggleable__label {cursor: pointer;display: block;width: 100%;margin-bottom: 0;padding: 0.3em;box-sizing: border-box;text-align: center;}#sk-container-id-2 label.sk-toggleable__label-arrow:before {content: \\\"▸\\\";float: left;margin-right: 0.25em;color: #696969;}#sk-container-id-2 label.sk-toggleable__label-arrow:hover:before {color: black;}#sk-container-id-2 div.sk-estimator:hover label.sk-toggleable__label-arrow:before {color: black;}#sk-container-id-2 div.sk-toggleable__content {max-height: 0;max-width: 0;overflow: hidden;text-align: left;background-color: #f0f8ff;}#sk-container-id-2 div.sk-toggleable__content pre {margin: 0.2em;color: black;border-radius: 0.25em;background-color: #f0f8ff;}#sk-container-id-2 input.sk-toggleable__control:checked~div.sk-toggleable__content {max-height: 200px;max-width: 100%;overflow: auto;}#sk-container-id-2 input.sk-toggleable__control:checked~label.sk-toggleable__label-arrow:before {content: \\\"▾\\\";}#sk-container-id-2 div.sk-estimator input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-2 div.sk-label input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-2 input.sk-hidden--visually {border: 0;clip: rect(1px 1px 1px 1px);clip: rect(1px, 1px, 1px, 1px);height: 1px;margin: -1px;overflow: hidden;padding: 0;position: absolute;width: 1px;}#sk-container-id-2 div.sk-estimator {font-family: monospace;background-color: #f0f8ff;border: 1px dotted black;border-radius: 0.25em;box-sizing: border-box;margin-bottom: 0.5em;}#sk-container-id-2 div.sk-estimator:hover {background-color: #d4ebff;}#sk-container-id-2 div.sk-parallel-item::after {content: \\\"\\\";width: 100%;border-bottom: 1px solid gray;flex-grow: 1;}#sk-container-id-2 div.sk-label:hover label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-2 div.sk-serial::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: 0;}#sk-container-id-2 div.sk-serial {display: flex;flex-direction: column;align-items: center;background-color: white;padding-right: 0.2em;padding-left: 0.2em;position: relative;}#sk-container-id-2 div.sk-item {position: relative;z-index: 1;}#sk-container-id-2 div.sk-parallel {display: flex;align-items: stretch;justify-content: center;background-color: white;position: relative;}#sk-container-id-2 div.sk-item::before, #sk-container-id-2 div.sk-parallel-item::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: -1;}#sk-container-id-2 div.sk-parallel-item {display: flex;flex-direction: column;z-index: 1;position: relative;background-color: white;}#sk-container-id-2 div.sk-parallel-item:first-child::after {align-self: flex-end;width: 50%;}#sk-container-id-2 div.sk-parallel-item:last-child::after {align-self: flex-start;width: 50%;}#sk-container-id-2 div.sk-parallel-item:only-child::after {width: 0;}#sk-container-id-2 div.sk-dashed-wrapped {border: 1px dashed gray;margin: 0 0.4em 0.5em 0.4em;box-sizing: border-box;padding-bottom: 0.4em;background-color: white;}#sk-container-id-2 div.sk-label label {font-family: monospace;font-weight: bold;display: inline-block;line-height: 1.2em;}#sk-container-id-2 div.sk-label-container {text-align: center;}#sk-container-id-2 div.sk-container {/* jupyter's `normalize.less` sets `[hidden] { display: none; }` but bootstrap.min.css set `[hidden] { display: none !important; }` so we also need the `!important` here to be able to override the default hidden behavior on the sphinx rendered scikit-learn.org. See: https://github.com/scikit-learn/scikit-learn/issues/21755 */display: inline-block !important;position: relative;}#sk-container-id-2 div.sk-text-repr-fallback {display: none;}</style><div id=\\\"sk-container-id-2\\\" class=\\\"sk-top-container\\\"><div class=\\\"sk-text-repr-fallback\\\"><pre>RandomForestClassifier(bootstrap=False, criterion=&#x27;entropy&#x27;, max_depth=25,\\n\",\n       \"                       max_features=&#x27;log2&#x27;, n_estimators=200, n_jobs=1,\\n\",\n       \"                       random_state=0)</pre><b>In a Jupyter environment, please rerun this cell to show the HTML representation or trust the notebook. <br />On GitHub, the HTML representation is unable to render, please try loading this page with nbviewer.org.</b></div><div class=\\\"sk-container\\\" hidden><div class=\\\"sk-item\\\"><div class=\\\"sk-estimator sk-toggleable\\\"><input class=\\\"sk-toggleable__control sk-hidden--visually\\\" id=\\\"sk-estimator-id-2\\\" type=\\\"checkbox\\\" checked><label for=\\\"sk-estimator-id-2\\\" class=\\\"sk-toggleable__label sk-toggleable__label-arrow\\\">RandomForestClassifier</label><div class=\\\"sk-toggleable__content\\\"><pre>RandomForestClassifier(bootstrap=False, criterion=&#x27;entropy&#x27;, max_depth=25,\\n\",\n       \"                       max_features=&#x27;log2&#x27;, n_estimators=200, n_jobs=1,\\n\",\n       \"                       random_state=0)</pre></div></div></div></div></div>\"\n      ],\n      \"text/plain\": [\n       \"RandomForestClassifier(bootstrap=False, criterion='entropy', max_depth=25,\\n\",\n       \"                       max_features='log2', n_estimators=200, n_jobs=1,\\n\",\n       \"                       random_state=0)\"\n      ]\n     },\n     \"execution_count\": 22,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# import the library for random forest\\n\",\n    \"from sklearn.ensemble import RandomForestClassifier\\n\",\n    \"\\n\",\n    \"# prepare the random forest class\\n\",\n    \"rfc = RandomForestClassifier(\\n\",\n    \"    n_estimators=200,\\n\",\n    \"    max_depth=25,\\n\",\n    \"    max_features=\\\"log2\\\",\\n\",\n    \"    bootstrap=False,\\n\",\n    \"    criterion=\\\"entropy\\\",\\n\",\n    \"    n_jobs=1, \\n\",\n    \"    random_state=0\\n\",\n    \")\\n\",\n    \"rfc\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 23,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<style>#sk-container-id-3 {color: black;background-color: white;}#sk-container-id-3 pre{padding: 0;}#sk-container-id-3 div.sk-toggleable {background-color: white;}#sk-container-id-3 label.sk-toggleable__label {cursor: pointer;display: block;width: 100%;margin-bottom: 0;padding: 0.3em;box-sizing: border-box;text-align: center;}#sk-container-id-3 label.sk-toggleable__label-arrow:before {content: \\\"▸\\\";float: left;margin-right: 0.25em;color: #696969;}#sk-container-id-3 label.sk-toggleable__label-arrow:hover:before {color: black;}#sk-container-id-3 div.sk-estimator:hover label.sk-toggleable__label-arrow:before {color: black;}#sk-container-id-3 div.sk-toggleable__content {max-height: 0;max-width: 0;overflow: hidden;text-align: left;background-color: #f0f8ff;}#sk-container-id-3 div.sk-toggleable__content pre {margin: 0.2em;color: black;border-radius: 0.25em;background-color: #f0f8ff;}#sk-container-id-3 input.sk-toggleable__control:checked~div.sk-toggleable__content {max-height: 200px;max-width: 100%;overflow: auto;}#sk-container-id-3 input.sk-toggleable__control:checked~label.sk-toggleable__label-arrow:before {content: \\\"▾\\\";}#sk-container-id-3 div.sk-estimator input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-3 div.sk-label input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-3 input.sk-hidden--visually {border: 0;clip: rect(1px 1px 1px 1px);clip: rect(1px, 1px, 1px, 1px);height: 1px;margin: -1px;overflow: hidden;padding: 0;position: absolute;width: 1px;}#sk-container-id-3 div.sk-estimator {font-family: monospace;background-color: #f0f8ff;border: 1px dotted black;border-radius: 0.25em;box-sizing: border-box;margin-bottom: 0.5em;}#sk-container-id-3 div.sk-estimator:hover {background-color: #d4ebff;}#sk-container-id-3 div.sk-parallel-item::after {content: \\\"\\\";width: 100%;border-bottom: 1px solid gray;flex-grow: 1;}#sk-container-id-3 div.sk-label:hover label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-3 div.sk-serial::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: 0;}#sk-container-id-3 div.sk-serial {display: flex;flex-direction: column;align-items: center;background-color: white;padding-right: 0.2em;padding-left: 0.2em;position: relative;}#sk-container-id-3 div.sk-item {position: relative;z-index: 1;}#sk-container-id-3 div.sk-parallel {display: flex;align-items: stretch;justify-content: center;background-color: white;position: relative;}#sk-container-id-3 div.sk-item::before, #sk-container-id-3 div.sk-parallel-item::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: -1;}#sk-container-id-3 div.sk-parallel-item {display: flex;flex-direction: column;z-index: 1;position: relative;background-color: white;}#sk-container-id-3 div.sk-parallel-item:first-child::after {align-self: flex-end;width: 50%;}#sk-container-id-3 div.sk-parallel-item:last-child::after {align-self: flex-start;width: 50%;}#sk-container-id-3 div.sk-parallel-item:only-child::after {width: 0;}#sk-container-id-3 div.sk-dashed-wrapped {border: 1px dashed gray;margin: 0 0.4em 0.5em 0.4em;box-sizing: border-box;padding-bottom: 0.4em;background-color: white;}#sk-container-id-3 div.sk-label label {font-family: monospace;font-weight: bold;display: inline-block;line-height: 1.2em;}#sk-container-id-3 div.sk-label-container {text-align: center;}#sk-container-id-3 div.sk-container {/* jupyter's `normalize.less` sets `[hidden] { display: none; }` but bootstrap.min.css set `[hidden] { display: none !important; }` so we also need the `!important` here to be able to override the default hidden behavior on the sphinx rendered scikit-learn.org. See: https://github.com/scikit-learn/scikit-learn/issues/21755 */display: inline-block !important;position: relative;}#sk-container-id-3 div.sk-text-repr-fallback {display: none;}</style><div id=\\\"sk-container-id-3\\\" class=\\\"sk-top-container\\\"><div class=\\\"sk-text-repr-fallback\\\"><pre>RandomForestClassifier(bootstrap=False, criterion=&#x27;entropy&#x27;, max_depth=25,\\n\",\n       \"                       max_features=&#x27;log2&#x27;, n_estimators=200, n_jobs=1,\\n\",\n       \"                       random_state=0)</pre><b>In a Jupyter environment, please rerun this cell to show the HTML representation or trust the notebook. <br />On GitHub, the HTML representation is unable to render, please try loading this page with nbviewer.org.</b></div><div class=\\\"sk-container\\\" hidden><div class=\\\"sk-item\\\"><div class=\\\"sk-estimator sk-toggleable\\\"><input class=\\\"sk-toggleable__control sk-hidden--visually\\\" id=\\\"sk-estimator-id-3\\\" type=\\\"checkbox\\\" checked><label for=\\\"sk-estimator-id-3\\\" class=\\\"sk-toggleable__label sk-toggleable__label-arrow\\\">RandomForestClassifier</label><div class=\\\"sk-toggleable__content\\\"><pre>RandomForestClassifier(bootstrap=False, criterion=&#x27;entropy&#x27;, max_depth=25,\\n\",\n       \"                       max_features=&#x27;log2&#x27;, n_estimators=200, n_jobs=1,\\n\",\n       \"                       random_state=0)</pre></div></div></div></div></div>\"\n      ],\n      \"text/plain\": [\n       \"RandomForestClassifier(bootstrap=False, criterion='entropy', max_depth=25,\\n\",\n       \"                       max_features='log2', n_estimators=200, n_jobs=1,\\n\",\n       \"                       random_state=0)\"\n      ]\n     },\n     \"execution_count\": 23,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# train the model with training data\\n\",\n    \"rfc.fit(x_train, y_train)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 24,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"array(['others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'AC', 'others', 'others', 'others',\\n\",\n       \"       'QC', 'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'QC', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'AC', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others', 'AC',\\n\",\n       \"       'others', 'others', 'others', 'others', 'QC', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'AC', 'AC', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'AC', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'AC', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'QC', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'AC', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'AC', 'others', 'others', 'others',\\n\",\n       \"       'others', 'AC', 'others', 'others', 'AC', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others', 'QC',\\n\",\n       \"       'others', 'others', 'others', 'others', 'QC', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'QC', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'QC', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'AC', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'AC', 'others',\\n\",\n       \"       'others', 'others', 'others', 'AC', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'QC', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'AC', 'others', 'others', 'others',\\n\",\n       \"       'others', 'AC', 'others', 'others', 'AC', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'QC', 'others', 'others', 'AC',\\n\",\n       \"       'others', 'QC', 'others', 'QC', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'AC', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'AC', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'QC', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'QC', 'QC',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'QC', 'AC', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'AC', 'QC', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'AC', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'QC', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'QC', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'QC', 'AC', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'AC', 'others', 'others', 'others',\\n\",\n       \"       'QC', 'others', 'others', 'others', 'QC', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'AC', 'others', 'others', 'others',\\n\",\n       \"       'QC', 'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others', 'AC',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'QC', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'others',\\n\",\n       \"       'others', 'others', 'others', 'others', 'others', 'QC', 'others',\\n\",\n       \"       'QC', 'others', 'others', 'others', 'others', 'others'],\\n\",\n       \"      dtype=object)\"\n      ]\n     },\n     \"execution_count\": 24,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# predict the label of test data\\n\",\n    \"y_pred = rfc.predict(x_test)\\n\",\n    \"y_pred\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### confusion matrixでモデル性能を可視化\\n\",\n    \"\\n\",\n    \"https://en.wikipedia.org/wiki/Confusion_matrix\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 25,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"array([[595,   0,   0],\\n\",\n       \"       [  0,  16,   7],\\n\",\n       \"       [  0,  10,  20]])\"\n      ]\n     },\n     \"execution_count\": 25,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# import a library for evaluating the model performance based on confusion matrix\\n\",\n    \"from sklearn.metrics import confusion_matrix\\n\",\n    \"\\n\",\n    \"labels = ['others', 'QC', 'AC']\\n\",\n    \"confusion_matrix = confusion_matrix(y_test, y_pred, labels=labels)\\n\",\n    \"confusion_matrix\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 32,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<__main__.ConfusionMatrixDisplay at 0x7fa9348e9e50>\"\n      ]\n     },\n     \"execution_count\": 32,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"Text(0.5, 1.0, 'Normalized confusion matrix')\"\n      ]\n     },\n     \"execution_count\": 32,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<__main__.ConfusionMatrixDisplay at 0x7fa934c2ed00>\"\n      ]\n     },\n     \"execution_count\": 32,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"Text(0.5, 1.0, 'Without normalize')\"\n      ]\n     },\n     \"execution_count\": 32,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 2250x750 with 4 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"from matplotlib import pyplot as plt\\n\",\n    \"\\n\",\n    \"# plot the results\\n\",\n    \"fig, (ax1, ax2) = plt.subplots(1, 2, figsize=(15, 5), dpi=150)\\n\",\n    \"cm = confusion_matrix / confusion_matrix.sum(axis=1, keepdims=True)\\n\",\n    \"cmd = ConfusionMatrixDisplay(cm, labels)\\n\",\n    \"cmd.plot(\\n\",\n    \"    cmap=plt.cm.Blues, \\n\",\n    \"    ax=ax1)\\n\",\n    \"ax1.set_title(\\\"Normalized confusion matrix\\\")\\n\",\n    \"\\n\",\n    \"cmd = ConfusionMatrixDisplay(confusion_matrix, labels)\\n\",\n    \"cmd.plot(\\n\",\n    \"    cmap=plt.cm.Blues, \\n\",\n    \"    ax=ax2)\\n\",\n    \"ax2.set_title(\\\"Without normalize\\\")\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"interpreter\": {\n   \"hash\": \"93169193031bed5a34de5405a805c1cdfe217db623a6098111020ecff952ad9d\"\n  },\n  \"kernelspec\": {\n   \"display_name\": \"Python 3.8.13 ('xepy38')\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.8.13\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "mi_book/exercise_18.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {\n    \"slideshow\": {\n     \"slide_type\": \"-\"\n    }\n   },\n   \"source\": [\n    \"### 演習18）\\n\",\n    \"\\n\",\n    \"この演習では，散乱位相空間(SPS: scattering phase space)でモデルを訓練して，転移学習を利用して格子熱伝導率(LTC: lattice thermal conductivity)の予測モデルを訓練する．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run common_setting.ipynb\\n\",\n    \"\\n\",\n    \"import pandas as pd\\n\",\n    \"import numpy as np\\n\",\n    \"import joblib\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 訓練データ\\n\",\n    \"\\n\",\n    \"この演習に使われる訓練データは，ソースモデルを訓練するSPSデータとターゲットモデルを訓練するLTCデータが必要となる．\\n\",\n    \"まず，用意された`sps_tc.pkl.z`からデータを読み込む．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>TC (W/mK)</th>\\n\",\n       \"      <th>SPS (cm)</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-28797</th>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>0.000111</td>\\n\",\n       \"      <td>{'Y': 1.0, 'H': 1.0, 'Se': 1.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-36248</th>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>0.000152</td>\\n\",\n       \"      <td>{'H': 4.0, 'Br': 1.0, 'N': 1.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-34337</th>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>0.000171</td>\\n\",\n       \"      <td>{'H': 4.0, 'N': 1.0, 'Cl': 1.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-24012</th>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>0.000187</td>\\n\",\n       \"      <td>{'Ho': 1.0, 'H': 1.0, 'Se': 1.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1541</th>\\n\",\n       \"      <td>95.0</td>\\n\",\n       \"      <td>0.000194</td>\\n\",\n       \"      <td>{'Be': 1.0, 'Se': 1.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-614603</th>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>0.004187</td>\\n\",\n       \"      <td>{'Cs': 1.0, 'I': 1.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-22875</th>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>0.004233</td>\\n\",\n       \"      <td>{'Tl': 1.0, 'Br': 1.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-13548</th>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>0.004822</td>\\n\",\n       \"      <td>{'Cs': 2.0, 'Pt': 1.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-571102</th>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>0.004915</td>\\n\",\n       \"      <td>{'Tl': 1.0, 'I': 1.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-2667</th>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>0.005085</td>\\n\",\n       \"      <td>{'Cs': 1.0, 'Au': 1.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>320 rows × 3 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"           TC (W/mK)  SPS (cm)                       composition\\n\",\n       \"mp-28797         NaN  0.000111   {'Y': 1.0, 'H': 1.0, 'Se': 1.0}\\n\",\n       \"mp-36248         NaN  0.000152   {'H': 4.0, 'Br': 1.0, 'N': 1.0}\\n\",\n       \"mp-34337         NaN  0.000171   {'H': 4.0, 'N': 1.0, 'Cl': 1.0}\\n\",\n       \"mp-24012         NaN  0.000187  {'Ho': 1.0, 'H': 1.0, 'Se': 1.0}\\n\",\n       \"mp-1541         95.0  0.000194            {'Be': 1.0, 'Se': 1.0}\\n\",\n       \"...              ...       ...                               ...\\n\",\n       \"mp-614603        NaN  0.004187             {'Cs': 1.0, 'I': 1.0}\\n\",\n       \"mp-22875         NaN  0.004233            {'Tl': 1.0, 'Br': 1.0}\\n\",\n       \"mp-13548         NaN  0.004822            {'Cs': 2.0, 'Pt': 1.0}\\n\",\n       \"mp-571102        NaN  0.004915             {'Tl': 1.0, 'I': 1.0}\\n\",\n       \"mp-2667          NaN  0.005085            {'Cs': 1.0, 'Au': 1.0}\\n\",\n       \"\\n\",\n       \"[320 rows x 3 columns]\"\n      ]\n     },\n     \"execution_count\": 2,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"TC (W/mK)       45\\n\",\n       \"SPS (cm)       320\\n\",\n       \"composition    320\\n\",\n       \"dtype: int64\"\n      ]\n     },\n     \"execution_count\": 2,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"sps_tc = joblib.load('data/sps_tc.pd.xz')\\n\",\n    \"\\n\",\n    \"sps_tc\\n\",\n    \"sps_tc.count()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"下記の図で示したように，SPS (ln)とTC (ln)の間に負の相関がある，\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<AxesSubplot:xlabel='sps_ln', ylabel='tc_ln'>\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 432x288 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"sps_tc = sps_tc.assign(\\n\",\n    \"    sps_ln=np.log(sps_tc['SPS (cm)']),\\n\",\n    \"    tc_ln=np.log(sps_tc['TC (W/mK)']),\\n\",\n    \")\\n\",\n    \"\\n\",\n    \"sps_tc.plot.scatter('sps_ln', 'tc_ln')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 組成記述子を計算する\\n\",\n    \"\\n\",\n    \"演習12）述べたように，`xenonpy.descriptor.Compositions`を用いて記述子を計算する．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.descriptor import Compositions\\n\",\n    \"\\n\",\n    \"compositions = Compositions()\\n\",\n    \"desc = compositions.fit_transform(sps_tc)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"記述子に標準化などをかける．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-28797</th>\\n\",\n       \"      <td>0.519461</td>\\n\",\n       \"      <td>0.352939</td>\\n\",\n       \"      <td>0.440564</td>\\n\",\n       \"      <td>0.475845</td>\\n\",\n       \"      <td>0.516967</td>\\n\",\n       \"      <td>0.622361</td>\\n\",\n       \"      <td>0.354938</td>\\n\",\n       \"      <td>0.490035</td>\\n\",\n       \"      <td>0.425942</td>\\n\",\n       \"      <td>0.418996</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.470982</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.523867</td>\\n\",\n       \"      <td>0.241108</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.282162</td>\\n\",\n       \"      <td>0.433662</td>\\n\",\n       \"      <td>0.061582</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-36248</th>\\n\",\n       \"      <td>0.191606</td>\\n\",\n       \"      <td>0.016526</td>\\n\",\n       \"      <td>0.016401</td>\\n\",\n       \"      <td>0.453012</td>\\n\",\n       \"      <td>0.194561</td>\\n\",\n       \"      <td>0.023203</td>\\n\",\n       \"      <td>0.431694</td>\\n\",\n       \"      <td>0.033376</td>\\n\",\n       \"      <td>0.021037</td>\\n\",\n       \"      <td>0.021773</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.470982</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.929314</td>\\n\",\n       \"      <td>0.028806</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.282162</td>\\n\",\n       \"      <td>0.086047</td>\\n\",\n       \"      <td>0.061582</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-34337</th>\\n\",\n       \"      <td>0.103057</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.420570</td>\\n\",\n       \"      <td>0.094037</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.430921</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.470982</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.919461</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.282162</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.061582</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-24012</th>\\n\",\n       \"      <td>0.648906</td>\\n\",\n       \"      <td>0.355647</td>\\n\",\n       \"      <td>0.437254</td>\\n\",\n       \"      <td>0.462037</td>\\n\",\n       \"      <td>0.655626</td>\\n\",\n       \"      <td>0.573563</td>\\n\",\n       \"      <td>0.352709</td>\\n\",\n       \"      <td>0.461868</td>\\n\",\n       \"      <td>0.430170</td>\\n\",\n       \"      <td>0.426005</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.470982</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.205548</td>\\n\",\n       \"      <td>0.241108</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>0.282162</td>\\n\",\n       \"      <td>0.433662</td>\\n\",\n       \"      <td>0.061582</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1541</th>\\n\",\n       \"      <td>0.428421</td>\\n\",\n       \"      <td>0.300812</td>\\n\",\n       \"      <td>0.482383</td>\\n\",\n       \"      <td>0.167863</td>\\n\",\n       \"      <td>0.437169</td>\\n\",\n       \"      <td>0.733973</td>\\n\",\n       \"      <td>0.544853</td>\\n\",\n       \"      <td>0.218400</td>\\n\",\n       \"      <td>0.389880</td>\\n\",\n       \"      <td>0.456143</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.000000</td>\\n\",\n       \"      <td>0.398908</td>\\n\",\n       \"      <td>0.956637</td>\\n\",\n       \"      <td>0.513202</td>\\n\",\n       \"      <td>0.378693</td>\\n\",\n       \"      <td>0.564028</td>\\n\",\n       \"      <td>0.734760</td>\\n\",\n       \"      <td>0.196724</td>\\n\",\n       \"      <td>0.832094</td>\\n\",\n       \"      <td>0.784508</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-614603</th>\\n\",\n       \"      <td>0.875502</td>\\n\",\n       \"      <td>0.902459</td>\\n\",\n       \"      <td>0.717115</td>\\n\",\n       \"      <td>0.986115</td>\\n\",\n       \"      <td>0.865410</td>\\n\",\n       \"      <td>0.397809</td>\\n\",\n       \"      <td>0.065149</td>\\n\",\n       \"      <td>0.893147</td>\\n\",\n       \"      <td>0.902493</td>\\n\",\n       \"      <td>0.923080</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.470982</td>\\n\",\n       \"      <td>0.909811</td>\\n\",\n       \"      <td>0.430397</td>\\n\",\n       \"      <td>0.470528</td>\\n\",\n       \"      <td>0.828400</td>\\n\",\n       \"      <td>0.724673</td>\\n\",\n       \"      <td>0.858743</td>\\n\",\n       \"      <td>1.000000</td>\\n\",\n       \"      <td>0.635883</td>\\n\",\n       \"      <td>0.922868</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-22875</th>\\n\",\n       \"      <td>0.915306</td>\\n\",\n       \"      <td>0.598177</td>\\n\",\n       \"      <td>0.575577</td>\\n\",\n       \"      <td>0.589962</td>\\n\",\n       \"      <td>0.911432</td>\\n\",\n       \"      <td>0.500198</td>\\n\",\n       \"      <td>0.259713</td>\\n\",\n       \"      <td>0.287443</td>\\n\",\n       \"      <td>0.544243</td>\\n\",\n       \"      <td>0.590800</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.000000</td>\\n\",\n       \"      <td>0.793131</td>\\n\",\n       \"      <td>0.066267</td>\\n\",\n       \"      <td>0.167639</td>\\n\",\n       \"      <td>0.693351</td>\\n\",\n       \"      <td>0.594427</td>\\n\",\n       \"      <td>0.724846</td>\\n\",\n       \"      <td>0.888972</td>\\n\",\n       \"      <td>0.298151</td>\\n\",\n       \"      <td>0.695821</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-13548</th>\\n\",\n       \"      <td>0.960002</td>\\n\",\n       \"      <td>1.000000</td>\\n\",\n       \"      <td>0.707796</td>\\n\",\n       \"      <td>1.000000</td>\\n\",\n       \"      <td>0.952707</td>\\n\",\n       \"      <td>0.716052</td>\\n\",\n       \"      <td>0.585426</td>\\n\",\n       \"      <td>1.000000</td>\\n\",\n       \"      <td>1.000000</td>\\n\",\n       \"      <td>1.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.470982</td>\\n\",\n       \"      <td>1.000000</td>\\n\",\n       \"      <td>0.087212</td>\\n\",\n       \"      <td>0.998361</td>\\n\",\n       \"      <td>0.989105</td>\\n\",\n       \"      <td>0.890163</td>\\n\",\n       \"      <td>0.886134</td>\\n\",\n       \"      <td>0.202336</td>\\n\",\n       \"      <td>0.635883</td>\\n\",\n       \"      <td>0.994553</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-571102</th>\\n\",\n       \"      <td>1.000000</td>\\n\",\n       \"      <td>0.573260</td>\\n\",\n       \"      <td>0.678202</td>\\n\",\n       \"      <td>0.619516</td>\\n\",\n       \"      <td>0.994084</td>\\n\",\n       \"      <td>0.517409</td>\\n\",\n       \"      <td>0.282944</td>\\n\",\n       \"      <td>0.332407</td>\\n\",\n       \"      <td>0.603099</td>\\n\",\n       \"      <td>0.652497</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.000000</td>\\n\",\n       \"      <td>0.909811</td>\\n\",\n       \"      <td>0.066267</td>\\n\",\n       \"      <td>0.470528</td>\\n\",\n       \"      <td>0.807363</td>\\n\",\n       \"      <td>0.724673</td>\\n\",\n       \"      <td>0.858743</td>\\n\",\n       \"      <td>0.946591</td>\\n\",\n       \"      <td>0.298151</td>\\n\",\n       \"      <td>0.922868</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-2667</th>\\n\",\n       \"      <td>1.000000</td>\\n\",\n       \"      <td>0.887186</td>\\n\",\n       \"      <td>0.650771</td>\\n\",\n       \"      <td>0.917704</td>\\n\",\n       \"      <td>0.991697</td>\\n\",\n       \"      <td>0.718742</td>\\n\",\n       \"      <td>0.724669</td>\\n\",\n       \"      <td>0.895212</td>\\n\",\n       \"      <td>0.893578</td>\\n\",\n       \"      <td>0.896405</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.470982</td>\\n\",\n       \"      <td>1.000000</td>\\n\",\n       \"      <td>0.070500</td>\\n\",\n       \"      <td>0.998361</td>\\n\",\n       \"      <td>1.000000</td>\\n\",\n       \"      <td>0.908970</td>\\n\",\n       \"      <td>0.921987</td>\\n\",\n       \"      <td>0.502739</td>\\n\",\n       \"      <td>0.546442</td>\\n\",\n       \"      <td>0.953093</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>320 rows × 290 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"           ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-28797            0.519461           0.352939                0.440564   \\n\",\n       \"mp-36248            0.191606           0.016526                0.016401   \\n\",\n       \"mp-34337            0.103057           0.000000                0.000000   \\n\",\n       \"mp-24012            0.648906           0.355647                0.437254   \\n\",\n       \"mp-1541             0.428421           0.300812                0.482383   \\n\",\n       \"...                      ...                ...                     ...   \\n\",\n       \"mp-614603           0.875502           0.902459                0.717115   \\n\",\n       \"mp-22875            0.915306           0.598177                0.575577   \\n\",\n       \"mp-13548            0.960002           1.000000                0.707796   \\n\",\n       \"mp-571102           1.000000           0.573260                0.678202   \\n\",\n       \"mp-2667             1.000000           0.887186                0.650771   \\n\",\n       \"\\n\",\n       \"           ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-28797            0.475845           0.516967           0.622361   \\n\",\n       \"mp-36248            0.453012           0.194561           0.023203   \\n\",\n       \"mp-34337            0.420570           0.094037           0.000000   \\n\",\n       \"mp-24012            0.462037           0.655626           0.573563   \\n\",\n       \"mp-1541             0.167863           0.437169           0.733973   \\n\",\n       \"...                      ...                ...                ...   \\n\",\n       \"mp-614603           0.986115           0.865410           0.397809   \\n\",\n       \"mp-22875            0.589962           0.911432           0.500198   \\n\",\n       \"mp-13548            1.000000           0.952707           0.716052   \\n\",\n       \"mp-571102           0.619516           0.994084           0.517409   \\n\",\n       \"mp-2667             0.917704           0.991697           0.718742   \\n\",\n       \"\\n\",\n       \"           ave:bulk_modulus  ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-28797           0.354938   0.490035                     0.425942   \\n\",\n       \"mp-36248           0.431694   0.033376                     0.021037   \\n\",\n       \"mp-34337           0.430921   0.000000                     0.000000   \\n\",\n       \"mp-24012           0.352709   0.461868                     0.430170   \\n\",\n       \"mp-1541            0.544853   0.218400                     0.389880   \\n\",\n       \"...                     ...        ...                          ...   \\n\",\n       \"mp-614603          0.065149   0.893147                     0.902493   \\n\",\n       \"mp-22875           0.259713   0.287443                     0.544243   \\n\",\n       \"mp-13548           0.585426   1.000000                     1.000000   \\n\",\n       \"mp-571102          0.282944   0.332407                     0.603099   \\n\",\n       \"mp-2667            0.724669   0.895212                     0.893578   \\n\",\n       \"\\n\",\n       \"           ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"mp-28797                     0.418996  ...           0.470982    0.000000   \\n\",\n       \"mp-36248                     0.021773  ...           0.470982    0.000000   \\n\",\n       \"mp-34337                     0.000000  ...           0.470982    0.000000   \\n\",\n       \"mp-24012                     0.426005  ...           0.470982    0.000000   \\n\",\n       \"mp-1541                      0.456143  ...           1.000000    0.398908   \\n\",\n       \"...                               ...  ...                ...         ...   \\n\",\n       \"mp-614603                    0.923080  ...           0.470982    0.909811   \\n\",\n       \"mp-22875                     0.590800  ...           1.000000    0.793131   \\n\",\n       \"mp-13548                     1.000000  ...           0.470982    1.000000   \\n\",\n       \"mp-571102                    0.652497  ...           1.000000    0.909811   \\n\",\n       \"mp-2667                      0.896405  ...           0.470982    1.000000   \\n\",\n       \"\\n\",\n       \"           min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"mp-28797            0.523867                  0.241108        0.000000   \\n\",\n       \"mp-36248            0.929314                  0.028806        0.000000   \\n\",\n       \"mp-34337            0.919461                  0.000000        0.000000   \\n\",\n       \"mp-24012            0.205548                  0.241108        0.000000   \\n\",\n       \"mp-1541             0.956637                  0.513202        0.378693   \\n\",\n       \"...                      ...                       ...             ...   \\n\",\n       \"mp-614603           0.430397                  0.470528        0.828400   \\n\",\n       \"mp-22875            0.066267                  0.167639        0.693351   \\n\",\n       \"mp-13548            0.087212                  0.998361        0.989105   \\n\",\n       \"mp-571102           0.066267                  0.470528        0.807363   \\n\",\n       \"mp-2667             0.070500                  0.998361        1.000000   \\n\",\n       \"\\n\",\n       \"           min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"mp-28797                 0.000000            0.000000            0.282162   \\n\",\n       \"mp-36248                 0.000000            0.000000            0.282162   \\n\",\n       \"mp-34337                 0.000000            0.000000            0.282162   \\n\",\n       \"mp-24012                 0.000000            0.000000            0.282162   \\n\",\n       \"mp-1541                  0.564028            0.734760            0.196724   \\n\",\n       \"...                           ...                 ...                 ...   \\n\",\n       \"mp-614603                0.724673            0.858743            1.000000   \\n\",\n       \"mp-22875                 0.594427            0.724846            0.888972   \\n\",\n       \"mp-13548                 0.890163            0.886134            0.202336   \\n\",\n       \"mp-571102                0.724673            0.858743            0.946591   \\n\",\n       \"mp-2667                  0.908970            0.921987            0.502739   \\n\",\n       \"\\n\",\n       \"           min:sound_velocity  min:Polarizability  \\n\",\n       \"mp-28797             0.433662            0.061582  \\n\",\n       \"mp-36248             0.086047            0.061582  \\n\",\n       \"mp-34337             0.000000            0.061582  \\n\",\n       \"mp-24012             0.433662            0.061582  \\n\",\n       \"mp-1541              0.832094            0.784508  \\n\",\n       \"...                       ...                 ...  \\n\",\n       \"mp-614603            0.635883            0.922868  \\n\",\n       \"mp-22875             0.298151            0.695821  \\n\",\n       \"mp-13548             0.635883            0.994553  \\n\",\n       \"mp-571102            0.298151            0.922868  \\n\",\n       \"mp-2667              0.546442            0.953093  \\n\",\n       \"\\n\",\n       \"[320 rows x 290 columns]\"\n      ]\n     },\n     \"execution_count\": 5,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.datatools import Scaler\\n\",\n    \"\\n\",\n    \"scaler = Scaler().power_transformer().min_max()\\n\",\n    \"desc_scaled = scaler.fit_transform(desc)\\n\",\n    \"\\n\",\n    \"desc_scaled\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### SPSモデルを訓練する\\n\",\n    \"\\n\",\n    \"SPSデータは`xenonpy.datatools.Splitter`を用いて訓練データとテストデータに分ける．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<style>#sk-container-id-1 {color: black;background-color: white;}#sk-container-id-1 pre{padding: 0;}#sk-container-id-1 div.sk-toggleable {background-color: white;}#sk-container-id-1 label.sk-toggleable__label {cursor: pointer;display: block;width: 100%;margin-bottom: 0;padding: 0.3em;box-sizing: border-box;text-align: center;}#sk-container-id-1 label.sk-toggleable__label-arrow:before {content: \\\"▸\\\";float: left;margin-right: 0.25em;color: #696969;}#sk-container-id-1 label.sk-toggleable__label-arrow:hover:before {color: black;}#sk-container-id-1 div.sk-estimator:hover label.sk-toggleable__label-arrow:before {color: black;}#sk-container-id-1 div.sk-toggleable__content {max-height: 0;max-width: 0;overflow: hidden;text-align: left;background-color: #f0f8ff;}#sk-container-id-1 div.sk-toggleable__content pre {margin: 0.2em;color: black;border-radius: 0.25em;background-color: #f0f8ff;}#sk-container-id-1 input.sk-toggleable__control:checked~div.sk-toggleable__content {max-height: 200px;max-width: 100%;overflow: auto;}#sk-container-id-1 input.sk-toggleable__control:checked~label.sk-toggleable__label-arrow:before {content: \\\"▾\\\";}#sk-container-id-1 div.sk-estimator input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-1 div.sk-label input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-1 input.sk-hidden--visually {border: 0;clip: rect(1px 1px 1px 1px);clip: rect(1px, 1px, 1px, 1px);height: 1px;margin: -1px;overflow: hidden;padding: 0;position: absolute;width: 1px;}#sk-container-id-1 div.sk-estimator {font-family: monospace;background-color: #f0f8ff;border: 1px dotted black;border-radius: 0.25em;box-sizing: border-box;margin-bottom: 0.5em;}#sk-container-id-1 div.sk-estimator:hover {background-color: #d4ebff;}#sk-container-id-1 div.sk-parallel-item::after {content: \\\"\\\";width: 100%;border-bottom: 1px solid gray;flex-grow: 1;}#sk-container-id-1 div.sk-label:hover label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-1 div.sk-serial::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: 0;}#sk-container-id-1 div.sk-serial {display: flex;flex-direction: column;align-items: center;background-color: white;padding-right: 0.2em;padding-left: 0.2em;position: relative;}#sk-container-id-1 div.sk-item {position: relative;z-index: 1;}#sk-container-id-1 div.sk-parallel {display: flex;align-items: stretch;justify-content: center;background-color: white;position: relative;}#sk-container-id-1 div.sk-item::before, #sk-container-id-1 div.sk-parallel-item::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: -1;}#sk-container-id-1 div.sk-parallel-item {display: flex;flex-direction: column;z-index: 1;position: relative;background-color: white;}#sk-container-id-1 div.sk-parallel-item:first-child::after {align-self: flex-end;width: 50%;}#sk-container-id-1 div.sk-parallel-item:last-child::after {align-self: flex-start;width: 50%;}#sk-container-id-1 div.sk-parallel-item:only-child::after {width: 0;}#sk-container-id-1 div.sk-dashed-wrapped {border: 1px dashed gray;margin: 0 0.4em 0.5em 0.4em;box-sizing: border-box;padding-bottom: 0.4em;background-color: white;}#sk-container-id-1 div.sk-label label {font-family: monospace;font-weight: bold;display: inline-block;line-height: 1.2em;}#sk-container-id-1 div.sk-label-container {text-align: center;}#sk-container-id-1 div.sk-container {/* jupyter's `normalize.less` sets `[hidden] { display: none; }` but bootstrap.min.css set `[hidden] { display: none !important; }` so we also need the `!important` here to be able to override the default hidden behavior on the sphinx rendered scikit-learn.org. See: https://github.com/scikit-learn/scikit-learn/issues/21755 */display: inline-block !important;position: relative;}#sk-container-id-1 div.sk-text-repr-fallback {display: none;}</style><div id=\\\"sk-container-id-1\\\" class=\\\"sk-top-container\\\"><div class=\\\"sk-text-repr-fallback\\\"><pre>Splitter(random_state=0, size=320, test_size=0.1)</pre><b>In a Jupyter environment, please rerun this cell to show the HTML representation or trust the notebook. <br />On GitHub, the HTML representation is unable to render, please try loading this page with nbviewer.org.</b></div><div class=\\\"sk-container\\\" hidden><div class=\\\"sk-item\\\"><div class=\\\"sk-estimator sk-toggleable\\\"><input class=\\\"sk-toggleable__control sk-hidden--visually\\\" id=\\\"sk-estimator-id-1\\\" type=\\\"checkbox\\\" checked><label for=\\\"sk-estimator-id-1\\\" class=\\\"sk-toggleable__label sk-toggleable__label-arrow\\\">Splitter</label><div class=\\\"sk-toggleable__content\\\"><pre>Splitter(random_state=0, size=320, test_size=0.1)</pre></div></div></div></div></div>\"\n      ],\n      \"text/plain\": [\n       \"Splitter(random_state=0, size=320, test_size=0.1)\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.datatools import Splitter\\n\",\n    \"\\n\",\n    \"splitter = Splitter(size=desc.shape[0], random_state=0, test_size=0.1)\\n\",\n    \"splitter\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(288, 290)\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(288, 1)\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(32, 290)\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(32, 1)\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"x_train, x_test, y_train, y_test = splitter.split(desc_scaled, sps_tc[['sps_ln']])\\n\",\n    \"\\n\",\n    \"x_train.shape\\n\",\n    \"y_train.shape\\n\",\n    \"x_test.shape\\n\",\n    \"y_test.shape\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"シンプルするために，ここでは４つのNNモデルをランダムで生成し，訓練する．モデル訓練についてもっと詳しく理解する人には，[andom_nn_model_and_training](https://github.com/yoshida-lab/XenonPy/blob/master/samples/random_nn_model_and_training.ipynb)を参考してください．\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"なお，この演習はCUDAの利用しているが，各自でテストする時に自分のパソコン環境に合して設定してください．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# model parameters\\n\",\n    \"\\n\",\n    \"cuda = 'cuda:0'\\n\",\n    \"n_layers = (3, 4, 5)\\n\",\n    \"n_models = 4\\n\",\n    \"epochs = 1000\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# import packages\\n\",\n    \"\\n\",\n    \"import torch\\n\",\n    \"import torch.optim as optim\\n\",\n    \"import torch.nn as nn\\n\",\n    \"import xenonpy as xe\\n\",\n    \"\\n\",\n    \"from datetime import datetime, timedelta\\n\",\n    \"from platform import version as sys_ver\\n\",\n    \"from sys import version as py_ver\\n\",\n    \"from pathlib import Path\\n\",\n    \"from collections import OrderedDict\\n\",\n    \"\\n\",\n    \"from torch.utils.data import DataLoader\\n\",\n    \"\\n\",\n    \"from xenonpy.datatools import Splitter, preset, Dataset\\n\",\n    \"from xenonpy.utils import ParameterGenerator\\n\",\n    \"from xenonpy.model import SequentialLinear\\n\",\n    \"from xenonpy.model.utils import regression_metrics\\n\",\n    \"from xenonpy.model.training.dataset import ArrayDataset\\n\",\n    \"from xenonpy.model.training import Trainer, Checker, Adam, SGD, MSELoss, ClipNorm, ClipValue, ExponentialLR\\n\",\n    \"\\n\",\n    \"from xenonpy.model.training.extension import TensorConverter, Validator, Persist\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.utils import ParameterGenerator\\n\",\n    \"\\n\",\n    \"generator = ParameterGenerator(\\n\",\n    \"    in_features=290,\\n\",\n    \"    out_features=1,\\n\",\n    \"    h_neurons=dict(\\n\",\n    \"        data=lambda n: sorted(np.random.uniform(0.1, 0.6, size=n), reverse=True), \\n\",\n    \"        repeat=n_layers\\n\",\n    \"    ),\\n\",\n    \"    h_dropouts=0,\\n\",\n    \"    h_activation_funcs=(nn.LeakyReLU(),)\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def make_name(model):\\n\",\n    \"    name = []\\n\",\n    \"    for n, m in model.named_children():\\n\",\n    \"        if 'layer_' in n:\\n\",\n    \"            name.append(str(m.linear.in_features))\\n\",\n    \"        else:\\n\",\n    \"            name.append(str(m.in_features))\\n\",\n    \"            name.append(str(m.out_features))\\n\",\n    \"    return '-'.join(name)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<style>#sk-container-id-2 {color: black;background-color: white;}#sk-container-id-2 pre{padding: 0;}#sk-container-id-2 div.sk-toggleable {background-color: white;}#sk-container-id-2 label.sk-toggleable__label {cursor: pointer;display: block;width: 100%;margin-bottom: 0;padding: 0.3em;box-sizing: border-box;text-align: center;}#sk-container-id-2 label.sk-toggleable__label-arrow:before {content: \\\"▸\\\";float: left;margin-right: 0.25em;color: #696969;}#sk-container-id-2 label.sk-toggleable__label-arrow:hover:before {color: black;}#sk-container-id-2 div.sk-estimator:hover label.sk-toggleable__label-arrow:before {color: black;}#sk-container-id-2 div.sk-toggleable__content {max-height: 0;max-width: 0;overflow: hidden;text-align: left;background-color: #f0f8ff;}#sk-container-id-2 div.sk-toggleable__content pre {margin: 0.2em;color: black;border-radius: 0.25em;background-color: #f0f8ff;}#sk-container-id-2 input.sk-toggleable__control:checked~div.sk-toggleable__content {max-height: 200px;max-width: 100%;overflow: auto;}#sk-container-id-2 input.sk-toggleable__control:checked~label.sk-toggleable__label-arrow:before {content: \\\"▾\\\";}#sk-container-id-2 div.sk-estimator input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-2 div.sk-label input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-2 input.sk-hidden--visually {border: 0;clip: rect(1px 1px 1px 1px);clip: rect(1px, 1px, 1px, 1px);height: 1px;margin: -1px;overflow: hidden;padding: 0;position: absolute;width: 1px;}#sk-container-id-2 div.sk-estimator {font-family: monospace;background-color: #f0f8ff;border: 1px dotted black;border-radius: 0.25em;box-sizing: border-box;margin-bottom: 0.5em;}#sk-container-id-2 div.sk-estimator:hover {background-color: #d4ebff;}#sk-container-id-2 div.sk-parallel-item::after {content: \\\"\\\";width: 100%;border-bottom: 1px solid gray;flex-grow: 1;}#sk-container-id-2 div.sk-label:hover label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-2 div.sk-serial::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: 0;}#sk-container-id-2 div.sk-serial {display: flex;flex-direction: column;align-items: center;background-color: white;padding-right: 0.2em;padding-left: 0.2em;position: relative;}#sk-container-id-2 div.sk-item {position: relative;z-index: 1;}#sk-container-id-2 div.sk-parallel {display: flex;align-items: stretch;justify-content: center;background-color: white;position: relative;}#sk-container-id-2 div.sk-item::before, #sk-container-id-2 div.sk-parallel-item::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: -1;}#sk-container-id-2 div.sk-parallel-item {display: flex;flex-direction: column;z-index: 1;position: relative;background-color: white;}#sk-container-id-2 div.sk-parallel-item:first-child::after {align-self: flex-end;width: 50%;}#sk-container-id-2 div.sk-parallel-item:last-child::after {align-self: flex-start;width: 50%;}#sk-container-id-2 div.sk-parallel-item:only-child::after {width: 0;}#sk-container-id-2 div.sk-dashed-wrapped {border: 1px dashed gray;margin: 0 0.4em 0.5em 0.4em;box-sizing: border-box;padding-bottom: 0.4em;background-color: white;}#sk-container-id-2 div.sk-label label {font-family: monospace;font-weight: bold;display: inline-block;line-height: 1.2em;}#sk-container-id-2 div.sk-label-container {text-align: center;}#sk-container-id-2 div.sk-container {/* jupyter's `normalize.less` sets `[hidden] { display: none; }` but bootstrap.min.css set `[hidden] { display: none !important; }` so we also need the `!important` here to be able to override the default hidden behavior on the sphinx rendered scikit-learn.org. See: https://github.com/scikit-learn/scikit-learn/issues/21755 */display: inline-block !important;position: relative;}#sk-container-id-2 div.sk-text-repr-fallback {display: none;}</style><div id=\\\"sk-container-id-2\\\" class=\\\"sk-top-container\\\"><div class=\\\"sk-text-repr-fallback\\\"><pre>Trainer(cuda=device(type=&#x27;cuda&#x27;, index=0), loss_func=MSELoss(),\\n\",\n       \"        non_blocking=True)</pre><b>In a Jupyter environment, please rerun this cell to show the HTML representation or trust the notebook. <br />On GitHub, the HTML representation is unable to render, please try loading this page with nbviewer.org.</b></div><div class=\\\"sk-container\\\" hidden><div class=\\\"sk-item\\\"><div class=\\\"sk-estimator sk-toggleable\\\"><input class=\\\"sk-toggleable__control sk-hidden--visually\\\" id=\\\"sk-estimator-id-2\\\" type=\\\"checkbox\\\" checked><label for=\\\"sk-estimator-id-2\\\" class=\\\"sk-toggleable__label sk-toggleable__label-arrow\\\">Trainer</label><div class=\\\"sk-toggleable__content\\\"><pre>Trainer(cuda=device(type=&#x27;cuda&#x27;, index=0), loss_func=MSELoss(),\\n\",\n       \"        non_blocking=True)</pre></div></div></div></div></div>\"\n      ],\n      \"text/plain\": [\n       \"Trainer(cuda=device(type='cuda', index=0), loss_func=MSELoss(),\\n\",\n       \"        non_blocking=True)\"\n      ]\n     },\n     \"execution_count\": 12,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"trainer = Trainer(\\n\",\n    \"    optimizer=Adam(lr=0.01),\\n\",\n    \"    loss_func=MSELoss(),\\n\",\n    \"    cuda=cuda,\\n\",\n    \"    non_blocking=True\\n\",\n    \")\\n\",\n    \"\\n\",\n    \"trainer.extend(\\n\",\n    \"    TensorConverter(empty_cache=True),\\n\",\n    \"    Validator(metrics_func=regression_metrics, early_stopping=50, trace_order=1, pearsonr=1.0, mse=0.0, r2=0.0, mae=0.0),\\n\",\n    \")  \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"モデルを訓練する\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 13,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"e47fca5a44b94831b2ed4b986f80e459\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/1000 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 51 iterations, finish training at iteration 315\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"bea3be6710544765a93515307a24ead7\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/1000 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 51 iterations, finish training at iteration 203\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"aab23d40be084e05a89d6be6817b426e\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/1000 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 51 iterations, finish training at iteration 277\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"f13f1263511f4f3391071f225c06dd7c\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/1000 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 51 iterations, finish training at iteration 157\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th>property</th>\\n\",\n       \"      <th>mae</th>\\n\",\n       \"      <th>mse</th>\\n\",\n       \"      <th>r2</th>\\n\",\n       \"      <th>corr</th>\\n\",\n       \"      <th>training_env</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>290-165-101-80-44-1</td>\\n\",\n       \"      <td>SPS (cm, ln)</td>\\n\",\n       \"      <td>0.207578</td>\\n\",\n       \"      <td>0.072681</td>\\n\",\n       \"      <td>0.846165</td>\\n\",\n       \"      <td>0.931040</td>\\n\",\n       \"      <td>{'start': '2022/06/11 11:09:18', 'finish': '20...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>290-145-95-93-84-53-1</td>\\n\",\n       \"      <td>SPS (cm, ln)</td>\\n\",\n       \"      <td>0.266343</td>\\n\",\n       \"      <td>0.115927</td>\\n\",\n       \"      <td>0.754629</td>\\n\",\n       \"      <td>0.877055</td>\\n\",\n       \"      <td>{'start': '2022/06/11 11:09:25', 'finish': '20...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>290-162-126-111-103-1</td>\\n\",\n       \"      <td>SPS (cm, ln)</td>\\n\",\n       \"      <td>0.225485</td>\\n\",\n       \"      <td>0.092120</td>\\n\",\n       \"      <td>0.805019</td>\\n\",\n       \"      <td>0.912112</td>\\n\",\n       \"      <td>{'start': '2022/06/11 11:09:31', 'finish': '20...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>290-172-117-41-38-35-1</td>\\n\",\n       \"      <td>SPS (cm, ln)</td>\\n\",\n       \"      <td>0.240496</td>\\n\",\n       \"      <td>0.104744</td>\\n\",\n       \"      <td>0.778301</td>\\n\",\n       \"      <td>0.902715</td>\\n\",\n       \"      <td>{'start': '2022/06/11 11:09:37', 'finish': '20...</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                       id      property       mae       mse        r2  \\\\\\n\",\n       \"0     290-165-101-80-44-1  SPS (cm, ln)  0.207578  0.072681  0.846165   \\n\",\n       \"1   290-145-95-93-84-53-1  SPS (cm, ln)  0.266343  0.115927  0.754629   \\n\",\n       \"2   290-162-126-111-103-1  SPS (cm, ln)  0.225485  0.092120  0.805019   \\n\",\n       \"3  290-172-117-41-38-35-1  SPS (cm, ln)  0.240496  0.104744  0.778301   \\n\",\n       \"\\n\",\n       \"       corr                                       training_env  \\n\",\n       \"0  0.931040  {'start': '2022/06/11 11:09:18', 'finish': '20...  \\n\",\n       \"1  0.877055  {'start': '2022/06/11 11:09:25', 'finish': '20...  \\n\",\n       \"2  0.912112  {'start': '2022/06/11 11:09:31', 'finish': '20...  \\n\",\n       \"3  0.902715  {'start': '2022/06/11 11:09:37', 'finish': '20...  \"\n      ]\n     },\n     \"execution_count\": 13,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"output_dir = 'output/演習18'\\n\",\n    \"Path(output_dir).mkdir(parents=True, exist_ok=True)  # フォルダを作る\\n\",\n    \"\\n\",\n    \"summary = []\\n\",\n    \"predicitons = []\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"for i, (paras, model) in enumerate(generator(n_models, factory=SequentialLinear)):\\n\",\n    \"    train_dataset = DataLoader(ArrayDataset(x_train, y_train), shuffle=True, batch_size=50)  # データ数はかなり少ないため，mini batchをしないように\\n\",\n    \"    val_dataset = DataLoader(ArrayDataset(x_test, y_test), batch_size=1000) \\n\",\n    \"\\n\",\n    \"    model_name = make_name(model)\\n\",\n    \"    persist = Persist(\\n\",\n    \"        f'{output_dir}/models/{model_name}', \\n\",\n    \"        # -^- required -^-\\n\",\n    \"\\n\",\n    \"        # -v- optional -v-\\n\",\n    \"        increment=False, \\n\",\n    \"        sync_training_step=True,\\n\",\n    \"        model_class=SequentialLinear,\\n\",\n    \"        model_params=paras,\\n\",\n    \"    )\\n\",\n    \"    _ = trainer.extend(persist)\\n\",\n    \"    trainer.reset(to=model)\\n\",\n    \"\\n\",\n    \"    ## init training env\\n\",\n    \"    training_env = {\\n\",\n    \"        \\\"start\\\": datetime.utcnow().strftime('%Y/%m/%d %H:%M:%S.%f')[:-7],\\n\",\n    \"        \\\"finish\\\": \\\"\\\",\\n\",\n    \"        \\\"device\\\": cuda,\\n\",\n    \"        \\\"python\\\": py_ver.splitlines()[0][:-1],\\n\",\n    \"        \\\"system\\\": sys_ver(),\\n\",\n    \"        \\\"pandas\\\": pd.__version__,\\n\",\n    \"        \\\"numpy\\\": np.__version__,\\n\",\n    \"        \\\"pytorch\\\": torch.__version__,\\n\",\n    \"        \\\"xenonpy\\\": xe.__version__,\\n\",\n    \"    }\\n\",\n    \"\\n\",\n    \"    ## training\\n\",\n    \"    trainer.fit(training_dataset=train_dataset, validation_dataset=val_dataset, epochs=epochs)\\n\",\n    \"\\n\",\n    \"    ## update finish time\\n\",\n    \"    training_env['finish'] = datetime.utcnow().strftime('%Y/%m/%d %H:%M:%S.%f')[:-7]\\n\",\n    \"\\n\",\n    \"    ## save additional info\\n\",\n    \"    persist(training_indices=x_train.index.tolist(), validation_indices=x_test.index.tolist(), training_env=training_env)  # <-- calling of this method only after the model training\\n\",\n    \"    training_info = trainer.training_info\\n\",\n    \"\\n\",\n    \"    y_pred, y_true = trainer.predict(dataset=val_dataset, checkpoint='mae')\\n\",\n    \"    y_fit_pred, y_fit_true = trainer.predict(dataset=train_dataset, checkpoint='mae')\\n\",\n    \"    \\n\",\n    \"    ## prediction\\n\",\n    \"    tmp = pd.DataFrame(data=dict(\\n\",\n    \"        Prediction=np.vstack((y_pred, y_fit_pred)).flatten(),\\n\",\n    \"        Observation=np.vstack((y_true, y_fit_true)).flatten(),\\n\",\n    \"        for_test=[True] * y_test.size + [False] * y_train.size\\n\",\n    \"    )).assign(model_id=i)\\n\",\n    \"    \\n\",\n    \"    predicitons.append(tmp)\\n\",\n    \"    tmp = pd.concat(predicitons)\\n\",\n    \"    tmp.to_pickle(f'{output_dir}/models/predicitons.pd.xz')\\n\",\n    \"    tmp.to_csv(f'{output_dir}/models/predicitons.csv')\\n\",\n    \"    \\n\",\n    \"    ## training information\\n\",\n    \"    summary.append(OrderedDict(\\n\",\n    \"        id=model_name,\\n\",\n    \"        property='SPS (cm, ln)',\\n\",\n    \"        mae=training_info['val_mae'].min(),\\n\",\n    \"        mse=training_info['val_mse'].min(),\\n\",\n    \"        r2=training_info['val_r2'].max(),\\n\",\n    \"        corr=training_info['val_pearsonr'].max(),\\n\",\n    \"        training_env=training_env\\n\",\n    \"    ))\\n\",\n    \"\\n\",\n    \"    tmp = pd.DataFrame(summary)\\n\",\n    \"    tmp.to_pickle(f'{output_dir}/models/training_summary.pd.xz')\\n\",\n    \"    tmp.to_csv(f'{output_dir}/models/training_summary.csv')\\n\",\n    \"    \\n\",\n    \"predicitons = pd.concat(predicitons)\\n\",\n    \"summary = pd.DataFrame(summary)\\n\",\n    \"summary\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"見てわかるように，４つのモデルに異なる隠れ層を持っている（上記テーブルの`id`欄は隠れ層のニューロン数を表している）が，性能はほぼ一緒．\\n\",\n    \"\\n\",\n    \"転移学習を行う前に，モデルの訓練状況と予測性能を可視化してみましょう．\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"1. 訓練情報\\n\",\n    \"\\n\",\n    \"`Trainer`がもつ`training_info`に訓練中のstepごとの情報が保存されています，\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>total_iters</th>\\n\",\n       \"      <th>i_epoch</th>\\n\",\n       \"      <th>i_batch</th>\\n\",\n       \"      <th>train_mse_loss</th>\\n\",\n       \"      <th>val_mae</th>\\n\",\n       \"      <th>val_mse</th>\\n\",\n       \"      <th>val_rmse</th>\\n\",\n       \"      <th>val_r2</th>\\n\",\n       \"      <th>val_pearsonr</th>\\n\",\n       \"      <th>val_spearmanr</th>\\n\",\n       \"      <th>val_p_value</th>\\n\",\n       \"      <th>val_max_ae</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>154</th>\\n\",\n       \"      <td>154</td>\\n\",\n       \"      <td>26</td>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>0.117660</td>\\n\",\n       \"      <td>0.295053</td>\\n\",\n       \"      <td>0.123014</td>\\n\",\n       \"      <td>0.350733</td>\\n\",\n       \"      <td>0.739630</td>\\n\",\n       \"      <td>0.874217</td>\\n\",\n       \"      <td>0.817449</td>\\n\",\n       \"      <td>6.319111e-11</td>\\n\",\n       \"      <td>0.786178</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>155</th>\\n\",\n       \"      <td>155</td>\\n\",\n       \"      <td>26</td>\\n\",\n       \"      <td>6</td>\\n\",\n       \"      <td>0.103270</td>\\n\",\n       \"      <td>0.295975</td>\\n\",\n       \"      <td>0.125486</td>\\n\",\n       \"      <td>0.354240</td>\\n\",\n       \"      <td>0.734398</td>\\n\",\n       \"      <td>0.875017</td>\\n\",\n       \"      <td>0.835777</td>\\n\",\n       \"      <td>5.774483e-11</td>\\n\",\n       \"      <td>0.807491</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>156</th>\\n\",\n       \"      <td>156</td>\\n\",\n       \"      <td>27</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>0.050165</td>\\n\",\n       \"      <td>0.295226</td>\\n\",\n       \"      <td>0.132908</td>\\n\",\n       \"      <td>0.364566</td>\\n\",\n       \"      <td>0.718688</td>\\n\",\n       \"      <td>0.870310</td>\\n\",\n       \"      <td>0.837610</td>\\n\",\n       \"      <td>9.730151e-11</td>\\n\",\n       \"      <td>0.832828</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"     total_iters  i_epoch  i_batch  train_mse_loss   val_mae   val_mse  \\\\\\n\",\n       \"154          154       26        5        0.117660  0.295053  0.123014   \\n\",\n       \"155          155       26        6        0.103270  0.295975  0.125486   \\n\",\n       \"156          156       27        1        0.050165  0.295226  0.132908   \\n\",\n       \"\\n\",\n       \"     val_rmse    val_r2  val_pearsonr  val_spearmanr   val_p_value  val_max_ae  \\n\",\n       \"154  0.350733  0.739630      0.874217       0.817449  6.319111e-11    0.786178  \\n\",\n       \"155  0.354240  0.734398      0.875017       0.835777  5.774483e-11    0.807491  \\n\",\n       \"156  0.364566  0.718688      0.870310       0.837610  9.730151e-11    0.832828  \"\n      ]\n     },\n     \"execution_count\": 14,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<AxesSubplot:>\"\n      ]\n     },\n     \"execution_count\": 14,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 1000x500 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"_, ax = plt.subplots(figsize=(10, 5), dpi=100)\\n\",\n    \"trainer.training_info.tail(3)\\n\",\n    \"trainer.training_info.plot(y=['train_mse_loss', 'val_mse'], ax=ax)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"2. 予測値vs観測値\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<AxesSubplot:xlabel='Prediction', ylabel='Observation'>\"\n      ]\n     },\n     \"execution_count\": 15,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<AxesSubplot:xlabel='Prediction', ylabel='Observation'>\"\n      ]\n     },\n     \"execution_count\": 15,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<AxesSubplot:xlabel='Prediction', ylabel='Observation'>\"\n      ]\n     },\n     \"execution_count\": 15,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<AxesSubplot:xlabel='Prediction', ylabel='Observation'>\"\n      ]\n     },\n     \"execution_count\": 15,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 1500x1500 with 4 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"fig, axs = plt.subplots(2, 2, figsize=(10, 10), dpi=150, sharex=True, sharey=True)\\n\",\n    \"plt.subplots_adjust(wspace=0.1, hspace=0.1)\\n\",\n    \"\\n\",\n    \"for ax, (_, data) in zip(axs.flatten(), predicitons.groupby('model_id')):\\n\",\n    \"    tmp = data[data.for_test]\\n\",\n    \"    y_pred, y_true = tmp.Prediction.values, tmp.Observation.values\\n\",\n    \"\\n\",\n    \"    tmp = data[~data.for_test]\\n\",\n    \"    y_fit_pred, y_fit_true = tmp.Prediction.values, tmp.Observation.values\\n\",\n    \"\\n\",\n    \"    cv_plot(y_pred, y_true, y_fit_pred, y_fit_true, ax=ax)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 転移学習\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### 隠れ層の抽出 (frozen feature)\\n\",\n    \"\\n\",\n    \"`xenonpy.descriptor.FrozenFeaturizer`は`SequentialLinear`で構成したNNモデルから隠れ層の抽出ができる．\\n\",\n    \"\\n\",\n    \"これから，`mae`最小のモデルを用いて，最後の隠れ層を使ってTCのランダムフォレストモデルを訓練する．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=165, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(165, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): LeakyReLU(negative_slope=0.01)\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=165, out_features=101, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(101, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): LeakyReLU(negative_slope=0.01)\\n\",\n       \"  )\\n\",\n       \"  (layer_2): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=101, out_features=80, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(80, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): LeakyReLU(negative_slope=0.01)\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=80, out_features=44, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(44, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): LeakyReLU(negative_slope=0.01)\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=44, out_features=1, bias=True)\\n\",\n       \")\"\n      ]\n     },\n     \"execution_count\": 16,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"best_model_name = summary.sort_values('mae').head(1).id.item()\\n\",\n    \"trainer = Trainer.from_checker(f'{output_dir}/models/{best_model_name}')\\n\",\n    \"trainer.reset(to='mae')\\n\",\n    \"\\n\",\n    \"best_model = trainer.model\\n\",\n    \"best_model\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 17,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<style>#sk-container-id-3 {color: black;background-color: white;}#sk-container-id-3 pre{padding: 0;}#sk-container-id-3 div.sk-toggleable {background-color: white;}#sk-container-id-3 label.sk-toggleable__label {cursor: pointer;display: block;width: 100%;margin-bottom: 0;padding: 0.3em;box-sizing: border-box;text-align: center;}#sk-container-id-3 label.sk-toggleable__label-arrow:before {content: \\\"▸\\\";float: left;margin-right: 0.25em;color: #696969;}#sk-container-id-3 label.sk-toggleable__label-arrow:hover:before {color: black;}#sk-container-id-3 div.sk-estimator:hover label.sk-toggleable__label-arrow:before {color: black;}#sk-container-id-3 div.sk-toggleable__content {max-height: 0;max-width: 0;overflow: hidden;text-align: left;background-color: #f0f8ff;}#sk-container-id-3 div.sk-toggleable__content pre {margin: 0.2em;color: black;border-radius: 0.25em;background-color: #f0f8ff;}#sk-container-id-3 input.sk-toggleable__control:checked~div.sk-toggleable__content {max-height: 200px;max-width: 100%;overflow: auto;}#sk-container-id-3 input.sk-toggleable__control:checked~label.sk-toggleable__label-arrow:before {content: \\\"▾\\\";}#sk-container-id-3 div.sk-estimator input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-3 div.sk-label input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-3 input.sk-hidden--visually {border: 0;clip: rect(1px 1px 1px 1px);clip: rect(1px, 1px, 1px, 1px);height: 1px;margin: -1px;overflow: hidden;padding: 0;position: absolute;width: 1px;}#sk-container-id-3 div.sk-estimator {font-family: monospace;background-color: #f0f8ff;border: 1px dotted black;border-radius: 0.25em;box-sizing: border-box;margin-bottom: 0.5em;}#sk-container-id-3 div.sk-estimator:hover {background-color: #d4ebff;}#sk-container-id-3 div.sk-parallel-item::after {content: \\\"\\\";width: 100%;border-bottom: 1px solid gray;flex-grow: 1;}#sk-container-id-3 div.sk-label:hover label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-3 div.sk-serial::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: 0;}#sk-container-id-3 div.sk-serial {display: flex;flex-direction: column;align-items: center;background-color: white;padding-right: 0.2em;padding-left: 0.2em;position: relative;}#sk-container-id-3 div.sk-item {position: relative;z-index: 1;}#sk-container-id-3 div.sk-parallel {display: flex;align-items: stretch;justify-content: center;background-color: white;position: relative;}#sk-container-id-3 div.sk-item::before, #sk-container-id-3 div.sk-parallel-item::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: -1;}#sk-container-id-3 div.sk-parallel-item {display: flex;flex-direction: column;z-index: 1;position: relative;background-color: white;}#sk-container-id-3 div.sk-parallel-item:first-child::after {align-self: flex-end;width: 50%;}#sk-container-id-3 div.sk-parallel-item:last-child::after {align-self: flex-start;width: 50%;}#sk-container-id-3 div.sk-parallel-item:only-child::after {width: 0;}#sk-container-id-3 div.sk-dashed-wrapped {border: 1px dashed gray;margin: 0 0.4em 0.5em 0.4em;box-sizing: border-box;padding-bottom: 0.4em;background-color: white;}#sk-container-id-3 div.sk-label label {font-family: monospace;font-weight: bold;display: inline-block;line-height: 1.2em;}#sk-container-id-3 div.sk-label-container {text-align: center;}#sk-container-id-3 div.sk-container {/* jupyter's `normalize.less` sets `[hidden] { display: none; }` but bootstrap.min.css set `[hidden] { display: none !important; }` so we also need the `!important` here to be able to override the default hidden behavior on the sphinx rendered scikit-learn.org. See: https://github.com/scikit-learn/scikit-learn/issues/21755 */display: inline-block !important;position: relative;}#sk-container-id-3 div.sk-text-repr-fallback {display: none;}</style><div id=\\\"sk-container-id-3\\\" class=\\\"sk-top-container\\\"><div class=\\\"sk-text-repr-fallback\\\"><pre>FrozenFeaturizer(model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=165, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(165, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): LeakyReLU(negative_slope=0.01)\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=165, out_fe...\\n\",\n       \"    (normalizer): BatchNorm1d(80, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): LeakyReLU(negative_slope=0.01)\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=80, out_features=44, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(44, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): LeakyReLU(negative_slope=0.01)\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=44, out_features=1, bias=True)\\n\",\n       \"))</pre><b>In a Jupyter environment, please rerun this cell to show the HTML representation or trust the notebook. <br />On GitHub, the HTML representation is unable to render, please try loading this page with nbviewer.org.</b></div><div class=\\\"sk-container\\\" hidden><div class=\\\"sk-item\\\"><div class=\\\"sk-estimator sk-toggleable\\\"><input class=\\\"sk-toggleable__control sk-hidden--visually\\\" id=\\\"sk-estimator-id-3\\\" type=\\\"checkbox\\\" checked><label for=\\\"sk-estimator-id-3\\\" class=\\\"sk-toggleable__label sk-toggleable__label-arrow\\\">FrozenFeaturizer</label><div class=\\\"sk-toggleable__content\\\"><pre>FrozenFeaturizer(model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=165, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(165, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): LeakyReLU(negative_slope=0.01)\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=165, out_fe...\\n\",\n       \"    (normalizer): BatchNorm1d(80, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): LeakyReLU(negative_slope=0.01)\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=80, out_features=44, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(44, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): LeakyReLU(negative_slope=0.01)\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=44, out_features=1, bias=True)\\n\",\n       \"))</pre></div></div></div></div></div>\"\n      ],\n      \"text/plain\": [\n       \"FrozenFeaturizer(model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=165, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(165, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): LeakyReLU(negative_slope=0.01)\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=165, out_fe...\\n\",\n       \"    (normalizer): BatchNorm1d(80, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): LeakyReLU(negative_slope=0.01)\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=80, out_features=44, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(44, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): LeakyReLU(negative_slope=0.01)\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=44, out_features=1, bias=True)\\n\",\n       \"))\"\n      ]\n     },\n     \"execution_count\": 17,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# --- import necessary libraries\\n\",\n    \"\\n\",\n    \"from xenonpy.descriptor import FrozenFeaturizer\\n\",\n    \"\\n\",\n    \"# --- init FrozenFeaturizer with NN model\\n\",\n    \"ff = FrozenFeaturizer(model=best_model)\\n\",\n    \"ff\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"The following code will generate new \\\"neural descriptors\\\" from the corresponding neural network model.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>L(-1)_1</th>\\n\",\n       \"      <th>L(-1)_2</th>\\n\",\n       \"      <th>L(-1)_3</th>\\n\",\n       \"      <th>L(-1)_4</th>\\n\",\n       \"      <th>L(-1)_5</th>\\n\",\n       \"      <th>L(-1)_6</th>\\n\",\n       \"      <th>L(-1)_7</th>\\n\",\n       \"      <th>L(-1)_8</th>\\n\",\n       \"      <th>L(-1)_9</th>\\n\",\n       \"      <th>L(-1)_10</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>L(-1)_35</th>\\n\",\n       \"      <th>L(-1)_36</th>\\n\",\n       \"      <th>L(-1)_37</th>\\n\",\n       \"      <th>L(-1)_38</th>\\n\",\n       \"      <th>L(-1)_39</th>\\n\",\n       \"      <th>L(-1)_40</th>\\n\",\n       \"      <th>L(-1)_41</th>\\n\",\n       \"      <th>L(-1)_42</th>\\n\",\n       \"      <th>L(-1)_43</th>\\n\",\n       \"      <th>L(-1)_44</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1541</th>\\n\",\n       \"      <td>-1.907755</td>\\n\",\n       \"      <td>-0.338633</td>\\n\",\n       \"      <td>-1.785163</td>\\n\",\n       \"      <td>-2.293624</td>\\n\",\n       \"      <td>-0.478348</td>\\n\",\n       \"      <td>-5.193748</td>\\n\",\n       \"      <td>-4.578907</td>\\n\",\n       \"      <td>0.717293</td>\\n\",\n       \"      <td>-3.497502</td>\\n\",\n       \"      <td>-0.232644</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.441963</td>\\n\",\n       \"      <td>0.192911</td>\\n\",\n       \"      <td>0.615777</td>\\n\",\n       \"      <td>2.380728</td>\\n\",\n       \"      <td>-0.594986</td>\\n\",\n       \"      <td>-5.265559</td>\\n\",\n       \"      <td>-1.780512</td>\\n\",\n       \"      <td>-5.498725</td>\\n\",\n       \"      <td>-5.533217</td>\\n\",\n       \"      <td>-1.169519</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-23703</th>\\n\",\n       \"      <td>-2.001713</td>\\n\",\n       \"      <td>-1.616199</td>\\n\",\n       \"      <td>-1.941876</td>\\n\",\n       \"      <td>-2.433508</td>\\n\",\n       \"      <td>-0.080378</td>\\n\",\n       \"      <td>-2.234909</td>\\n\",\n       \"      <td>-2.128248</td>\\n\",\n       \"      <td>-1.272372</td>\\n\",\n       \"      <td>-0.988290</td>\\n\",\n       \"      <td>-0.359971</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.728054</td>\\n\",\n       \"      <td>0.435754</td>\\n\",\n       \"      <td>-2.783784</td>\\n\",\n       \"      <td>1.180742</td>\\n\",\n       \"      <td>-0.886707</td>\\n\",\n       \"      <td>-3.484913</td>\\n\",\n       \"      <td>-2.920038</td>\\n\",\n       \"      <td>-2.258926</td>\\n\",\n       \"      <td>-2.939060</td>\\n\",\n       \"      <td>0.161286</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-830</th>\\n\",\n       \"      <td>-1.388499</td>\\n\",\n       \"      <td>-1.325873</td>\\n\",\n       \"      <td>-2.292206</td>\\n\",\n       \"      <td>-3.881752</td>\\n\",\n       \"      <td>-0.842440</td>\\n\",\n       \"      <td>-3.901524</td>\\n\",\n       \"      <td>-3.165725</td>\\n\",\n       \"      <td>-0.392836</td>\\n\",\n       \"      <td>-1.328989</td>\\n\",\n       \"      <td>-0.665230</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.628708</td>\\n\",\n       \"      <td>1.020572</td>\\n\",\n       \"      <td>-2.225612</td>\\n\",\n       \"      <td>2.824039</td>\\n\",\n       \"      <td>-1.673200</td>\\n\",\n       \"      <td>-3.704171</td>\\n\",\n       \"      <td>-3.265968</td>\\n\",\n       \"      <td>-3.334146</td>\\n\",\n       \"      <td>-3.441006</td>\\n\",\n       \"      <td>0.175728</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>3 rows × 44 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"           L(-1)_1   L(-1)_2   L(-1)_3   L(-1)_4   L(-1)_5   L(-1)_6  \\\\\\n\",\n       \"mp-1541  -1.907755 -0.338633 -1.785163 -2.293624 -0.478348 -5.193748   \\n\",\n       \"mp-23703 -2.001713 -1.616199 -1.941876 -2.433508 -0.080378 -2.234909   \\n\",\n       \"mp-830   -1.388499 -1.325873 -2.292206 -3.881752 -0.842440 -3.901524   \\n\",\n       \"\\n\",\n       \"           L(-1)_7   L(-1)_8   L(-1)_9  L(-1)_10  ...  L(-1)_35  L(-1)_36  \\\\\\n\",\n       \"mp-1541  -4.578907  0.717293 -3.497502 -0.232644  ...  0.441963  0.192911   \\n\",\n       \"mp-23703 -2.128248 -1.272372 -0.988290 -0.359971  ...  0.728054  0.435754   \\n\",\n       \"mp-830   -3.165725 -0.392836 -1.328989 -0.665230  ...  0.628708  1.020572   \\n\",\n       \"\\n\",\n       \"          L(-1)_37  L(-1)_38  L(-1)_39  L(-1)_40  L(-1)_41  L(-1)_42  \\\\\\n\",\n       \"mp-1541   0.615777  2.380728 -0.594986 -5.265559 -1.780512 -5.498725   \\n\",\n       \"mp-23703 -2.783784  1.180742 -0.886707 -3.484913 -2.920038 -2.258926   \\n\",\n       \"mp-830   -2.225612  2.824039 -1.673200 -3.704171 -3.265968 -3.334146   \\n\",\n       \"\\n\",\n       \"          L(-1)_43  L(-1)_44  \\n\",\n       \"mp-1541  -5.533217 -1.169519  \\n\",\n       \"mp-23703 -2.939060  0.161286  \\n\",\n       \"mp-830   -3.441006  0.175728  \\n\",\n       \"\\n\",\n       \"[3 rows x 44 columns]\"\n      ]\n     },\n     \"execution_count\": 18,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"tmp = sps_tc.dropna()\\n\",\n    \"\\n\",\n    \"neural_descriptors = ff.transform(desc_scaled.loc[tmp.index], depth=1 ,return_type='df')\\n\",\n    \"neural_descriptors.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 19,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# split data\\n\",\n    \"from xenonpy.datatools import Splitter\\n\",\n    \"\\n\",\n    \"y = tmp['tc_ln']\\n\",\n    \"splitter = Splitter(len(y), test_size=0.2)\\n\",\n    \"\\n\",\n    \"X_train, X_test, y_train, y_test = splitter.split(neural_descriptors, y.values)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 20,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<style>#sk-container-id-4 {color: black;background-color: white;}#sk-container-id-4 pre{padding: 0;}#sk-container-id-4 div.sk-toggleable {background-color: white;}#sk-container-id-4 label.sk-toggleable__label {cursor: pointer;display: block;width: 100%;margin-bottom: 0;padding: 0.3em;box-sizing: border-box;text-align: center;}#sk-container-id-4 label.sk-toggleable__label-arrow:before {content: \\\"▸\\\";float: left;margin-right: 0.25em;color: #696969;}#sk-container-id-4 label.sk-toggleable__label-arrow:hover:before {color: black;}#sk-container-id-4 div.sk-estimator:hover label.sk-toggleable__label-arrow:before {color: black;}#sk-container-id-4 div.sk-toggleable__content {max-height: 0;max-width: 0;overflow: hidden;text-align: left;background-color: #f0f8ff;}#sk-container-id-4 div.sk-toggleable__content pre {margin: 0.2em;color: black;border-radius: 0.25em;background-color: #f0f8ff;}#sk-container-id-4 input.sk-toggleable__control:checked~div.sk-toggleable__content {max-height: 200px;max-width: 100%;overflow: auto;}#sk-container-id-4 input.sk-toggleable__control:checked~label.sk-toggleable__label-arrow:before {content: \\\"▾\\\";}#sk-container-id-4 div.sk-estimator input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-4 div.sk-label input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-4 input.sk-hidden--visually {border: 0;clip: rect(1px 1px 1px 1px);clip: rect(1px, 1px, 1px, 1px);height: 1px;margin: -1px;overflow: hidden;padding: 0;position: absolute;width: 1px;}#sk-container-id-4 div.sk-estimator {font-family: monospace;background-color: #f0f8ff;border: 1px dotted black;border-radius: 0.25em;box-sizing: border-box;margin-bottom: 0.5em;}#sk-container-id-4 div.sk-estimator:hover {background-color: #d4ebff;}#sk-container-id-4 div.sk-parallel-item::after {content: \\\"\\\";width: 100%;border-bottom: 1px solid gray;flex-grow: 1;}#sk-container-id-4 div.sk-label:hover label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-4 div.sk-serial::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: 0;}#sk-container-id-4 div.sk-serial {display: flex;flex-direction: column;align-items: center;background-color: white;padding-right: 0.2em;padding-left: 0.2em;position: relative;}#sk-container-id-4 div.sk-item {position: relative;z-index: 1;}#sk-container-id-4 div.sk-parallel {display: flex;align-items: stretch;justify-content: center;background-color: white;position: relative;}#sk-container-id-4 div.sk-item::before, #sk-container-id-4 div.sk-parallel-item::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: -1;}#sk-container-id-4 div.sk-parallel-item {display: flex;flex-direction: column;z-index: 1;position: relative;background-color: white;}#sk-container-id-4 div.sk-parallel-item:first-child::after {align-self: flex-end;width: 50%;}#sk-container-id-4 div.sk-parallel-item:last-child::after {align-self: flex-start;width: 50%;}#sk-container-id-4 div.sk-parallel-item:only-child::after {width: 0;}#sk-container-id-4 div.sk-dashed-wrapped {border: 1px dashed gray;margin: 0 0.4em 0.5em 0.4em;box-sizing: border-box;padding-bottom: 0.4em;background-color: white;}#sk-container-id-4 div.sk-label label {font-family: monospace;font-weight: bold;display: inline-block;line-height: 1.2em;}#sk-container-id-4 div.sk-label-container {text-align: center;}#sk-container-id-4 div.sk-container {/* jupyter's `normalize.less` sets `[hidden] { display: none; }` but bootstrap.min.css set `[hidden] { display: none !important; }` so we also need the `!important` here to be able to override the default hidden behavior on the sphinx rendered scikit-learn.org. See: https://github.com/scikit-learn/scikit-learn/issues/21755 */display: inline-block !important;position: relative;}#sk-container-id-4 div.sk-text-repr-fallback {display: none;}</style><div id=\\\"sk-container-id-4\\\" class=\\\"sk-top-container\\\"><div class=\\\"sk-text-repr-fallback\\\"><pre>RandomForestRegressor()</pre><b>In a Jupyter environment, please rerun this cell to show the HTML representation or trust the notebook. <br />On GitHub, the HTML representation is unable to render, please try loading this page with nbviewer.org.</b></div><div class=\\\"sk-container\\\" hidden><div class=\\\"sk-item\\\"><div class=\\\"sk-estimator sk-toggleable\\\"><input class=\\\"sk-toggleable__control sk-hidden--visually\\\" id=\\\"sk-estimator-id-4\\\" type=\\\"checkbox\\\" checked><label for=\\\"sk-estimator-id-4\\\" class=\\\"sk-toggleable__label sk-toggleable__label-arrow\\\">RandomForestRegressor</label><div class=\\\"sk-toggleable__content\\\"><pre>RandomForestRegressor()</pre></div></div></div></div></div>\"\n      ],\n      \"text/plain\": [\n       \"RandomForestRegressor()\"\n      ]\n     },\n     \"execution_count\": 20,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# random forest\\n\",\n    \"from sklearn.ensemble import RandomForestRegressor\\n\",\n    \"\\n\",\n    \"rf = RandomForestRegressor(n_estimators=100)\\n\",\n    \"rf.fit(X_train, y_train)\\n\",\n    \"\\n\",\n    \"y_pred = rf.predict(X_test)\\n\",\n    \"y_fit_pred = rf.predict(X_train)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 23,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<AxesSubplot:title={'center':'LTC (W/mk)'}, xlabel='Prediction', ylabel='Observation'>\"\n      ]\n     },\n     \"execution_count\": 23,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 1200x1200 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"cv_plot(np.exp(y_pred), np.exp(y_test), np.exp(y_fit_pred), np.exp(y_train), title='LTC (W/mk)')\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3 (ipykernel)\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.8.13\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "mi_book/exercise_19.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {\n    \"slideshow\": {\n     \"slide_type\": \"-\"\n    }\n   },\n   \"source\": [\n    \"### 演習19）\\n\",\n    \"\\n\",\n    \"この演習では，ポリマーと無機化合物の屈折率の間での転移学習モデルを訓練する．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run common_setting.ipynb\\n\",\n    \"\\n\",\n    \"import pandas as pd\\n\",\n    \"import numpy as np\\n\",\n    \"import joblib\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 訓練データ\\n\",\n    \"\\n\",\n    \"この演習は，高分子物データベースPolymer Genomeに収録してある第一原理計算で算出した853個のポリマーの屈折率の値とCitrinationというデータレポジトリ(Citrin Informatics社)から抽出した1,056件の無機化合物の屈折率の値を使用する．\\n\",\n    \"\\n\",\n    \"まず，用意された`refractive_index.pd.xz`からデータを読み込む．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>refractive_index</th>\\n\",\n       \"      <th>formula</th>\\n\",\n       \"      <th>polymer</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-441</th>\\n\",\n       \"      <td>1.86</td>\\n\",\n       \"      <td>Rb2Te</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>{'Rb': 2.0, 'Te': 1.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-22881</th>\\n\",\n       \"      <td>1.78</td>\\n\",\n       \"      <td>CdCl2</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>{'Cd': 1.0, 'Cl': 2.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-28013</th>\\n\",\n       \"      <td>2.23</td>\\n\",\n       \"      <td>MnI2</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>{'Mn': 1.0, 'I': 2.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-567290</th>\\n\",\n       \"      <td>2.65</td>\\n\",\n       \"      <td>LaN</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>{'La': 1.0, 'N': 1.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-560902</th>\\n\",\n       \"      <td>1.53</td>\\n\",\n       \"      <td>MnF2</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>{'Mn': 1.0, 'F': 2.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>MOL1065</th>\\n\",\n       \"      <td>1.77</td>\\n\",\n       \"      <td>C40H52O4Sn2</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>{'C': 40.0, 'H': 52.0, 'O': 4.0, 'Sn': 2.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>MOL1066</th>\\n\",\n       \"      <td>1.74</td>\\n\",\n       \"      <td>C48H52O6Sn2</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>{'C': 48.0, 'H': 52.0, 'O': 6.0, 'Sn': 2.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>MOL1067</th>\\n\",\n       \"      <td>1.68</td>\\n\",\n       \"      <td>Sn2C16H32O10</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>{'Sn': 2.0, 'C': 16.0, 'H': 32.0, 'O': 10.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>MOL1068</th>\\n\",\n       \"      <td>1.75</td>\\n\",\n       \"      <td>Sn4O8C16H48</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>{'Sn': 4.0, 'O': 8.0, 'C': 16.0, 'H': 48.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>MOL1069</th>\\n\",\n       \"      <td>1.63</td>\\n\",\n       \"      <td>Sn2O8C30H64</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>{'Sn': 2.0, 'O': 8.0, 'C': 30.0, 'H': 64.0}</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>2125 rows × 4 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"           refractive_index       formula  polymer  \\\\\\n\",\n       \"mp-441                 1.86         Rb2Te    False   \\n\",\n       \"mp-22881               1.78         CdCl2    False   \\n\",\n       \"mp-28013               2.23          MnI2    False   \\n\",\n       \"mp-567290              2.65           LaN    False   \\n\",\n       \"mp-560902              1.53          MnF2    False   \\n\",\n       \"...                     ...           ...      ...   \\n\",\n       \"MOL1065                1.77   C40H52O4Sn2     True   \\n\",\n       \"MOL1066                1.74   C48H52O6Sn2     True   \\n\",\n       \"MOL1067                1.68  Sn2C16H32O10     True   \\n\",\n       \"MOL1068                1.75   Sn4O8C16H48     True   \\n\",\n       \"MOL1069                1.63   Sn2O8C30H64     True   \\n\",\n       \"\\n\",\n       \"                                            composition  \\n\",\n       \"mp-441                           {'Rb': 2.0, 'Te': 1.0}  \\n\",\n       \"mp-22881                         {'Cd': 1.0, 'Cl': 2.0}  \\n\",\n       \"mp-28013                          {'Mn': 1.0, 'I': 2.0}  \\n\",\n       \"mp-567290                         {'La': 1.0, 'N': 1.0}  \\n\",\n       \"mp-560902                         {'Mn': 1.0, 'F': 2.0}  \\n\",\n       \"...                                                 ...  \\n\",\n       \"MOL1065     {'C': 40.0, 'H': 52.0, 'O': 4.0, 'Sn': 2.0}  \\n\",\n       \"MOL1066     {'C': 48.0, 'H': 52.0, 'O': 6.0, 'Sn': 2.0}  \\n\",\n       \"MOL1067    {'Sn': 2.0, 'C': 16.0, 'H': 32.0, 'O': 10.0}  \\n\",\n       \"MOL1068     {'Sn': 4.0, 'O': 8.0, 'C': 16.0, 'H': 48.0}  \\n\",\n       \"MOL1069     {'Sn': 2.0, 'O': 8.0, 'C': 30.0, 'H': 64.0}  \\n\",\n       \"\\n\",\n       \"[2125 rows x 4 columns]\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"refractive_index = pd.read_pickle('data/refractive_index.pd.xz')\\n\",\n    \"refractive_index\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 組成記述子を計算する\\n\",\n    \"\\n\",\n    \"演習12）述べたように，`xenonpy.descriptor.Compositions`を用いて記述子を計算する．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-441</th>\\n\",\n       \"      <td>42.000000</td>\\n\",\n       \"      <td>218.666667</td>\\n\",\n       \"      <td>240.666667</td>\\n\",\n       \"      <td>44.100000</td>\\n\",\n       \"      <td>99.511867</td>\\n\",\n       \"      <td>1061.666667</td>\\n\",\n       \"      <td>23.333333</td>\\n\",\n       \"      <td>3263.666667</td>\\n\",\n       \"      <td>192.666667</td>\\n\",\n       \"      <td>185.333333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>5.0</td>\\n\",\n       \"      <td>0.201</td>\\n\",\n       \"      <td>3.00000</td>\\n\",\n       \"      <td>206.0</td>\\n\",\n       \"      <td>199.0</td>\\n\",\n       \"      <td>244.0</td>\\n\",\n       \"      <td>411.4</td>\\n\",\n       \"      <td>1300.000000</td>\\n\",\n       \"      <td>5.500000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-22881</th>\\n\",\n       \"      <td>27.333333</td>\\n\",\n       \"      <td>149.569212</td>\\n\",\n       \"      <td>216.666667</td>\\n\",\n       \"      <td>16.833333</td>\\n\",\n       \"      <td>61.104667</td>\\n\",\n       \"      <td>505.066667</td>\\n\",\n       \"      <td>14.733333</td>\\n\",\n       \"      <td>199.733333</td>\\n\",\n       \"      <td>116.000000</td>\\n\",\n       \"      <td>111.333333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.232</td>\\n\",\n       \"      <td>0.00890</td>\\n\",\n       \"      <td>175.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>207.0</td>\\n\",\n       \"      <td>284.8</td>\\n\",\n       \"      <td>206.000000</td>\\n\",\n       \"      <td>2.180000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-28013</th>\\n\",\n       \"      <td>43.666667</td>\\n\",\n       \"      <td>145.493061</td>\\n\",\n       \"      <td>239.333333</td>\\n\",\n       \"      <td>19.596667</td>\\n\",\n       \"      <td>102.915661</td>\\n\",\n       \"      <td>1050.000000</td>\\n\",\n       \"      <td>45.133333</td>\\n\",\n       \"      <td>471.000000</td>\\n\",\n       \"      <td>142.666667</td>\\n\",\n       \"      <td>128.333333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>4.0</td>\\n\",\n       \"      <td>0.477</td>\\n\",\n       \"      <td>0.44900</td>\\n\",\n       \"      <td>198.0</td>\\n\",\n       \"      <td>204.0</td>\\n\",\n       \"      <td>224.0</td>\\n\",\n       \"      <td>296.1</td>\\n\",\n       \"      <td>3289.214936</td>\\n\",\n       \"      <td>5.350000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-567290</th>\\n\",\n       \"      <td>32.000000</td>\\n\",\n       \"      <td>139.500000</td>\\n\",\n       \"      <td>231.500000</td>\\n\",\n       \"      <td>19.900000</td>\\n\",\n       \"      <td>76.456235</td>\\n\",\n       \"      <td>1903.700000</td>\\n\",\n       \"      <td>42.682441</td>\\n\",\n       \"      <td>1877.850000</td>\\n\",\n       \"      <td>139.000000</td>\\n\",\n       \"      <td>125.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.197</td>\\n\",\n       \"      <td>0.02583</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>166.0</td>\\n\",\n       \"      <td>193.0</td>\\n\",\n       \"      <td>352.2</td>\\n\",\n       \"      <td>333.600000</td>\\n\",\n       \"      <td>1.100000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-560902</th>\\n\",\n       \"      <td>14.333333</td>\\n\",\n       \"      <td>134.349076</td>\\n\",\n       \"      <td>189.333333</td>\\n\",\n       \"      <td>13.863333</td>\\n\",\n       \"      <td>30.978283</td>\\n\",\n       \"      <td>801.673333</td>\\n\",\n       \"      <td>71.199293</td>\\n\",\n       \"      <td>218.466667</td>\\n\",\n       \"      <td>88.000000</td>\\n\",\n       \"      <td>82.333333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.477</td>\\n\",\n       \"      <td>0.02770</td>\\n\",\n       \"      <td>147.0</td>\\n\",\n       \"      <td>146.0</td>\\n\",\n       \"      <td>171.0</td>\\n\",\n       \"      <td>296.1</td>\\n\",\n       \"      <td>2826.915883</td>\\n\",\n       \"      <td>0.557000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>MOL1065</th>\\n\",\n       \"      <td>4.326531</td>\\n\",\n       \"      <td>88.334752</td>\\n\",\n       \"      <td>171.306122</td>\\n\",\n       \"      <td>10.548980</td>\\n\",\n       \"      <td>8.512980</td>\\n\",\n       \"      <td>2147.972653</td>\\n\",\n       \"      <td>47.898014</td>\\n\",\n       \"      <td>38.278776</td>\\n\",\n       \"      <td>51.775510</td>\\n\",\n       \"      <td>53.020408</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.222</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>317.500000</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>MOL1066</th>\\n\",\n       \"      <td>4.518519</td>\\n\",\n       \"      <td>89.603783</td>\\n\",\n       \"      <td>172.685185</td>\\n\",\n       \"      <td>10.224074</td>\\n\",\n       \"      <td>8.910722</td>\\n\",\n       \"      <td>2328.534259</td>\\n\",\n       \"      <td>47.316829</td>\\n\",\n       \"      <td>38.591852</td>\\n\",\n       \"      <td>53.611111</td>\\n\",\n       \"      <td>54.833333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.222</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>317.500000</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>MOL1067</th>\\n\",\n       \"      <td>5.133333</td>\\n\",\n       \"      <td>96.166903</td>\\n\",\n       \"      <td>169.566667</td>\\n\",\n       \"      <td>11.810000</td>\\n\",\n       \"      <td>10.364033</td>\\n\",\n       \"      <td>1470.614333</td>\\n\",\n       \"      <td>53.710815</td>\\n\",\n       \"      <td>42.862000</td>\\n\",\n       \"      <td>51.633333</td>\\n\",\n       \"      <td>52.233333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.222</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>317.500000</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>MOL1068</th>\\n\",\n       \"      <td>5.368421</td>\\n\",\n       \"      <td>92.968571</td>\\n\",\n       \"      <td>168.315789</td>\\n\",\n       \"      <td>12.352632</td>\\n\",\n       \"      <td>11.097263</td>\\n\",\n       \"      <td>1229.828421</td>\\n\",\n       \"      <td>53.884619</td>\\n\",\n       \"      <td>53.585263</td>\\n\",\n       \"      <td>49.210526</td>\\n\",\n       \"      <td>50.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.222</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>317.500000</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>MOL1069</th>\\n\",\n       \"      <td>3.923077</td>\\n\",\n       \"      <td>89.227032</td>\\n\",\n       \"      <td>167.500000</td>\\n\",\n       \"      <td>11.596154</td>\\n\",\n       \"      <td>7.598596</td>\\n\",\n       \"      <td>1539.475385</td>\\n\",\n       \"      <td>51.442551</td>\\n\",\n       \"      <td>32.858077</td>\\n\",\n       \"      <td>47.884615</td>\\n\",\n       \"      <td>48.865385</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.222</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>317.500000</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>2125 rows × 290 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"           ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-441             42.000000         218.666667              240.666667   \\n\",\n       \"mp-22881           27.333333         149.569212              216.666667   \\n\",\n       \"mp-28013           43.666667         145.493061              239.333333   \\n\",\n       \"mp-567290          32.000000         139.500000              231.500000   \\n\",\n       \"mp-560902          14.333333         134.349076              189.333333   \\n\",\n       \"...                      ...                ...                     ...   \\n\",\n       \"MOL1065             4.326531          88.334752              171.306122   \\n\",\n       \"MOL1066             4.518519          89.603783              172.685185   \\n\",\n       \"MOL1067             5.133333          96.166903              169.566667   \\n\",\n       \"MOL1068             5.368421          92.968571              168.315789   \\n\",\n       \"MOL1069             3.923077          89.227032              167.500000   \\n\",\n       \"\\n\",\n       \"           ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-441             44.100000          99.511867        1061.666667   \\n\",\n       \"mp-22881           16.833333          61.104667         505.066667   \\n\",\n       \"mp-28013           19.596667         102.915661        1050.000000   \\n\",\n       \"mp-567290          19.900000          76.456235        1903.700000   \\n\",\n       \"mp-560902          13.863333          30.978283         801.673333   \\n\",\n       \"...                      ...                ...                ...   \\n\",\n       \"MOL1065            10.548980           8.512980        2147.972653   \\n\",\n       \"MOL1066            10.224074           8.910722        2328.534259   \\n\",\n       \"MOL1067            11.810000          10.364033        1470.614333   \\n\",\n       \"MOL1068            12.352632          11.097263        1229.828421   \\n\",\n       \"MOL1069            11.596154           7.598596        1539.475385   \\n\",\n       \"\\n\",\n       \"           ave:bulk_modulus    ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-441            23.333333  3263.666667                   192.666667   \\n\",\n       \"mp-22881          14.733333   199.733333                   116.000000   \\n\",\n       \"mp-28013          45.133333   471.000000                   142.666667   \\n\",\n       \"mp-567290         42.682441  1877.850000                   139.000000   \\n\",\n       \"mp-560902         71.199293   218.466667                    88.000000   \\n\",\n       \"...                     ...          ...                          ...   \\n\",\n       \"MOL1065           47.898014    38.278776                    51.775510   \\n\",\n       \"MOL1066           47.316829    38.591852                    53.611111   \\n\",\n       \"MOL1067           53.710815    42.862000                    51.633333   \\n\",\n       \"MOL1068           53.884619    53.585263                    49.210526   \\n\",\n       \"MOL1069           51.442551    32.858077                    47.884615   \\n\",\n       \"\\n\",\n       \"           ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"mp-441                     185.333333  ...                1.0         5.0   \\n\",\n       \"mp-22881                   111.333333  ...                2.0         3.0   \\n\",\n       \"mp-28013                   128.333333  ...                2.0         4.0   \\n\",\n       \"mp-567290                  125.500000  ...                2.0         2.0   \\n\",\n       \"mp-560902                   82.333333  ...                2.0         2.0   \\n\",\n       \"...                               ...  ...                ...         ...   \\n\",\n       \"MOL1065                     53.020408  ...                1.0         1.0   \\n\",\n       \"MOL1066                     54.833333  ...                1.0         1.0   \\n\",\n       \"MOL1067                     52.233333  ...                1.0         1.0   \\n\",\n       \"MOL1068                     50.000000  ...                1.0         1.0   \\n\",\n       \"MOL1069                     48.865385  ...                1.0         1.0   \\n\",\n       \"\\n\",\n       \"           min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"mp-441                 0.201                   3.00000           206.0   \\n\",\n       \"mp-22881               0.232                   0.00890           175.0   \\n\",\n       \"mp-28013               0.477                   0.44900           198.0   \\n\",\n       \"mp-567290              0.197                   0.02583           155.0   \\n\",\n       \"mp-560902              0.477                   0.02770           147.0   \\n\",\n       \"...                      ...                       ...             ...   \\n\",\n       \"MOL1065                0.222                   0.02658           110.0   \\n\",\n       \"MOL1066                0.222                   0.02658           110.0   \\n\",\n       \"MOL1067                0.222                   0.02658           110.0   \\n\",\n       \"MOL1068                0.222                   0.02658           110.0   \\n\",\n       \"MOL1069                0.222                   0.02658           110.0   \\n\",\n       \"\\n\",\n       \"           min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"mp-441                      199.0               244.0               411.4   \\n\",\n       \"mp-22881                    182.0               207.0               284.8   \\n\",\n       \"mp-28013                    204.0               224.0               296.1   \\n\",\n       \"mp-567290                   166.0               193.0               352.2   \\n\",\n       \"mp-560902                   146.0               171.0               296.1   \\n\",\n       \"...                           ...                 ...                 ...   \\n\",\n       \"MOL1065                     120.0               162.0               288.6   \\n\",\n       \"MOL1066                     120.0               162.0               288.6   \\n\",\n       \"MOL1067                     120.0               162.0               288.6   \\n\",\n       \"MOL1068                     120.0               162.0               288.6   \\n\",\n       \"MOL1069                     120.0               162.0               288.6   \\n\",\n       \"\\n\",\n       \"           min:sound_velocity  min:Polarizability  \\n\",\n       \"mp-441            1300.000000            5.500000  \\n\",\n       \"mp-22881           206.000000            2.180000  \\n\",\n       \"mp-28013          3289.214936            5.350000  \\n\",\n       \"mp-567290          333.600000            1.100000  \\n\",\n       \"mp-560902         2826.915883            0.557000  \\n\",\n       \"...                       ...                 ...  \\n\",\n       \"MOL1065            317.500000            0.666793  \\n\",\n       \"MOL1066            317.500000            0.666793  \\n\",\n       \"MOL1067            317.500000            0.666793  \\n\",\n       \"MOL1068            317.500000            0.666793  \\n\",\n       \"MOL1069            317.500000            0.666793  \\n\",\n       \"\\n\",\n       \"[2125 rows x 290 columns]\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import Compositions\\n\",\n    \"\\n\",\n    \"compositions = Compositions()\\n\",\n    \"desc = compositions.fit_transform(refractive_index)\\n\",\n    \"\\n\",\n    \"desc\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 訓練済みのrefractive indexモデルをロードする\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# import packages\\n\",\n    \"\\n\",\n    \"import torch\\n\",\n    \"import torch.optim as optim\\n\",\n    \"import torch.nn as nn\\n\",\n    \"import xenonpy as xe\\n\",\n    \"\\n\",\n    \"from datetime import datetime, timedelta\\n\",\n    \"from platform import version as sys_ver\\n\",\n    \"from sys import version as py_ver\\n\",\n    \"from pathlib import Path\\n\",\n    \"from collections import OrderedDict\\n\",\n    \"\\n\",\n    \"from torch.utils.data import DataLoader\\n\",\n    \"\\n\",\n    \"from xenonpy.datatools import Splitter, preset, Dataset\\n\",\n    \"from xenonpy.utils import ParameterGenerator\\n\",\n    \"from xenonpy.model import SequentialLinear\\n\",\n    \"from xenonpy.model.utils import regression_metrics\\n\",\n    \"from xenonpy.model.training.dataset import ArrayDataset\\n\",\n    \"from xenonpy.model.training import Trainer, Checker, Adam, SGD, MSELoss, ClipNorm, ClipValue, ExponentialLR\\n\",\n    \"\\n\",\n    \"from xenonpy.model.training.extension import TensorConverter, Validator, Persist\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"PyTorchのバージョンにより下記のような警告が出る場合もあるが，PyTorchのバージョンは1.7.0以上であれば，読み込みできることが確認していた．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/home/liuchang/mambaforge/envs/xenonpy/lib/python3.8/site-packages/torch/serialization.py:786: SourceChangeWarning: source code of class 'xenonpy.model.sequential.SequentialLinear' has changed. you can retrieve the original source code by accessing the object's source attribute or set `torch.nn.Module.dump_patches = True` and use the patch tool to revert the changes.\\n\",\n      \"  warnings.warn(msg, SourceChangeWarning)\\n\",\n      \"/home/liuchang/mambaforge/envs/xenonpy/lib/python3.8/site-packages/torch/serialization.py:786: SourceChangeWarning: source code of class 'xenonpy.model.sequential.LinearLayer' has changed. you can retrieve the original source code by accessing the object's source attribute or set `torch.nn.Module.dump_patches = True` and use the patch tool to revert the changes.\\n\",\n      \"  warnings.warn(msg, SourceChangeWarning)\\n\",\n      \"/home/liuchang/mambaforge/envs/xenonpy/lib/python3.8/site-packages/torch/serialization.py:786: SourceChangeWarning: source code of class 'torch.nn.modules.linear.Linear' has changed. you can retrieve the original source code by accessing the object's source attribute or set `torch.nn.Module.dump_patches = True` and use the patch tool to revert the changes.\\n\",\n      \"  warnings.warn(msg, SourceChangeWarning)\\n\",\n      \"/home/liuchang/mambaforge/envs/xenonpy/lib/python3.8/site-packages/torch/serialization.py:786: SourceChangeWarning: source code of class 'torch.nn.modules.dropout.Dropout' has changed. you can retrieve the original source code by accessing the object's source attribute or set `torch.nn.Module.dump_patches = True` and use the patch tool to revert the changes.\\n\",\n      \"  warnings.warn(msg, SourceChangeWarning)\\n\",\n      \"/home/liuchang/mambaforge/envs/xenonpy/lib/python3.8/site-packages/torch/serialization.py:786: SourceChangeWarning: source code of class 'torch.nn.modules.batchnorm.BatchNorm1d' has changed. you can retrieve the original source code by accessing the object's source attribute or set `torch.nn.Module.dump_patches = True` and use the patch tool to revert the changes.\\n\",\n      \"  warnings.warn(msg, SourceChangeWarning)\\n\",\n      \"/home/liuchang/mambaforge/envs/xenonpy/lib/python3.8/site-packages/torch/serialization.py:786: SourceChangeWarning: source code of class 'torch.nn.modules.activation.ReLU' has changed. you can retrieve the original source code by accessing the object's source attribute or set `torch.nn.Module.dump_patches = True` and use the patch tool to revert the changes.\\n\",\n      \"  warnings.warn(msg, SourceChangeWarning)\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<style>#sk-container-id-1 {color: black;background-color: white;}#sk-container-id-1 pre{padding: 0;}#sk-container-id-1 div.sk-toggleable {background-color: white;}#sk-container-id-1 label.sk-toggleable__label {cursor: pointer;display: block;width: 100%;margin-bottom: 0;padding: 0.3em;box-sizing: border-box;text-align: center;}#sk-container-id-1 label.sk-toggleable__label-arrow:before {content: \\\"▸\\\";float: left;margin-right: 0.25em;color: #696969;}#sk-container-id-1 label.sk-toggleable__label-arrow:hover:before {color: black;}#sk-container-id-1 div.sk-estimator:hover label.sk-toggleable__label-arrow:before {color: black;}#sk-container-id-1 div.sk-toggleable__content {max-height: 0;max-width: 0;overflow: hidden;text-align: left;background-color: #f0f8ff;}#sk-container-id-1 div.sk-toggleable__content pre {margin: 0.2em;color: black;border-radius: 0.25em;background-color: #f0f8ff;}#sk-container-id-1 input.sk-toggleable__control:checked~div.sk-toggleable__content {max-height: 200px;max-width: 100%;overflow: auto;}#sk-container-id-1 input.sk-toggleable__control:checked~label.sk-toggleable__label-arrow:before {content: \\\"▾\\\";}#sk-container-id-1 div.sk-estimator input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-1 div.sk-label input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-1 input.sk-hidden--visually {border: 0;clip: rect(1px 1px 1px 1px);clip: rect(1px, 1px, 1px, 1px);height: 1px;margin: -1px;overflow: hidden;padding: 0;position: absolute;width: 1px;}#sk-container-id-1 div.sk-estimator {font-family: monospace;background-color: #f0f8ff;border: 1px dotted black;border-radius: 0.25em;box-sizing: border-box;margin-bottom: 0.5em;}#sk-container-id-1 div.sk-estimator:hover {background-color: #d4ebff;}#sk-container-id-1 div.sk-parallel-item::after {content: \\\"\\\";width: 100%;border-bottom: 1px solid gray;flex-grow: 1;}#sk-container-id-1 div.sk-label:hover label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-1 div.sk-serial::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: 0;}#sk-container-id-1 div.sk-serial {display: flex;flex-direction: column;align-items: center;background-color: white;padding-right: 0.2em;padding-left: 0.2em;position: relative;}#sk-container-id-1 div.sk-item {position: relative;z-index: 1;}#sk-container-id-1 div.sk-parallel {display: flex;align-items: stretch;justify-content: center;background-color: white;position: relative;}#sk-container-id-1 div.sk-item::before, #sk-container-id-1 div.sk-parallel-item::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: -1;}#sk-container-id-1 div.sk-parallel-item {display: flex;flex-direction: column;z-index: 1;position: relative;background-color: white;}#sk-container-id-1 div.sk-parallel-item:first-child::after {align-self: flex-end;width: 50%;}#sk-container-id-1 div.sk-parallel-item:last-child::after {align-self: flex-start;width: 50%;}#sk-container-id-1 div.sk-parallel-item:only-child::after {width: 0;}#sk-container-id-1 div.sk-dashed-wrapped {border: 1px dashed gray;margin: 0 0.4em 0.5em 0.4em;box-sizing: border-box;padding-bottom: 0.4em;background-color: white;}#sk-container-id-1 div.sk-label label {font-family: monospace;font-weight: bold;display: inline-block;line-height: 1.2em;}#sk-container-id-1 div.sk-label-container {text-align: center;}#sk-container-id-1 div.sk-container {/* jupyter's `normalize.less` sets `[hidden] { display: none; }` but bootstrap.min.css set `[hidden] { display: none !important; }` so we also need the `!important` here to be able to override the default hidden behavior on the sphinx rendered scikit-learn.org. See: https://github.com/scikit-learn/scikit-learn/issues/21755 */display: inline-block !important;position: relative;}#sk-container-id-1 div.sk-text-repr-fallback {display: none;}</style><div id=\\\"sk-container-id-1\\\" class=\\\"sk-top-container\\\"><div class=\\\"sk-text-repr-fallback\\\"><pre>Trainer(cuda=device(type=&#x27;cpu&#x27;),\\n\",\n       \"        model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=187, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(187, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=187, out_features=15...\\n\",\n       \"    (normalizer): BatchNorm1d(110, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=110, out_features=102, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(102, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=102, out_features=1, bias=True)\\n\",\n       \"))</pre><b>In a Jupyter environment, please rerun this cell to show the HTML representation or trust the notebook. <br />On GitHub, the HTML representation is unable to render, please try loading this page with nbviewer.org.</b></div><div class=\\\"sk-container\\\" hidden><div class=\\\"sk-item\\\"><div class=\\\"sk-estimator sk-toggleable\\\"><input class=\\\"sk-toggleable__control sk-hidden--visually\\\" id=\\\"sk-estimator-id-1\\\" type=\\\"checkbox\\\" checked><label for=\\\"sk-estimator-id-1\\\" class=\\\"sk-toggleable__label sk-toggleable__label-arrow\\\">Trainer</label><div class=\\\"sk-toggleable__content\\\"><pre>Trainer(cuda=device(type=&#x27;cpu&#x27;),\\n\",\n       \"        model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=187, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(187, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=187, out_features=15...\\n\",\n       \"    (normalizer): BatchNorm1d(110, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=110, out_features=102, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(102, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=102, out_features=1, bias=True)\\n\",\n       \"))</pre></div></div></div></div></div>\"\n      ],\n      \"text/plain\": [\n       \"Trainer(cuda=device(type='cpu'),\\n\",\n       \"        model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=187, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(187, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=187, out_features=15...\\n\",\n       \"    (normalizer): BatchNorm1d(110, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=110, out_features=102, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(102, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=102, out_features=1, bias=True)\\n\",\n       \"))\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"trainer = Trainer.from_checker('data/refractive_index_NN_model')\\n\",\n    \"\\n\",\n    \"trainer\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<AxesSubplot:title={'center':'Refractive Index'}, xlabel='Prediction', ylabel='Observation'>\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 1200x1200 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"polymer = refractive_index[refractive_index.polymer]\\n\",\n    \"\\n\",\n    \"y_pred = trainer.predict(\\n\",\n    \"    x_in=torch.tensor(desc.loc[polymer.index].values, dtype=torch.float),\\n\",\n    \"    checkpoint='mae_1'\\n\",\n    \").detach().numpy().flatten()\\n\",\n    \"y_true = polymer.refractive_index.values\\n\",\n    \"\\n\",\n    \"cv_plot(y_pred, y_true, title='Refractive Index')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"見てわかるように，無機材料のデータで訓練した屈折率のモデルは有機ポリマーの予測に使えない．では，転移学習を使ってモデルを再訓練しましょう．\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 転移学習\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### 隠れ層の抽出 (frozen feature)\\n\",\n    \"\\n\",\n    \"`xenonpy.descriptor.FrozenFeaturizer`は`SequentialLinear`で構成したNNモデルから隠れ層の抽出ができる．\\n\",\n    \"\\n\",\n    \"これから，`mae`最小のモデルを用いて，最後の隠れ層を使ってTCのランダムフォレストモデルを訓練する．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<style>#sk-container-id-4 {color: black;background-color: white;}#sk-container-id-4 pre{padding: 0;}#sk-container-id-4 div.sk-toggleable {background-color: white;}#sk-container-id-4 label.sk-toggleable__label {cursor: pointer;display: block;width: 100%;margin-bottom: 0;padding: 0.3em;box-sizing: border-box;text-align: center;}#sk-container-id-4 label.sk-toggleable__label-arrow:before {content: \\\"▸\\\";float: left;margin-right: 0.25em;color: #696969;}#sk-container-id-4 label.sk-toggleable__label-arrow:hover:before {color: black;}#sk-container-id-4 div.sk-estimator:hover label.sk-toggleable__label-arrow:before {color: black;}#sk-container-id-4 div.sk-toggleable__content {max-height: 0;max-width: 0;overflow: hidden;text-align: left;background-color: #f0f8ff;}#sk-container-id-4 div.sk-toggleable__content pre {margin: 0.2em;color: black;border-radius: 0.25em;background-color: #f0f8ff;}#sk-container-id-4 input.sk-toggleable__control:checked~div.sk-toggleable__content {max-height: 200px;max-width: 100%;overflow: auto;}#sk-container-id-4 input.sk-toggleable__control:checked~label.sk-toggleable__label-arrow:before {content: \\\"▾\\\";}#sk-container-id-4 div.sk-estimator input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-4 div.sk-label input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-4 input.sk-hidden--visually {border: 0;clip: rect(1px 1px 1px 1px);clip: rect(1px, 1px, 1px, 1px);height: 1px;margin: -1px;overflow: hidden;padding: 0;position: absolute;width: 1px;}#sk-container-id-4 div.sk-estimator {font-family: monospace;background-color: #f0f8ff;border: 1px dotted black;border-radius: 0.25em;box-sizing: border-box;margin-bottom: 0.5em;}#sk-container-id-4 div.sk-estimator:hover {background-color: #d4ebff;}#sk-container-id-4 div.sk-parallel-item::after {content: \\\"\\\";width: 100%;border-bottom: 1px solid gray;flex-grow: 1;}#sk-container-id-4 div.sk-label:hover label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-4 div.sk-serial::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: 0;}#sk-container-id-4 div.sk-serial {display: flex;flex-direction: column;align-items: center;background-color: white;padding-right: 0.2em;padding-left: 0.2em;position: relative;}#sk-container-id-4 div.sk-item {position: relative;z-index: 1;}#sk-container-id-4 div.sk-parallel {display: flex;align-items: stretch;justify-content: center;background-color: white;position: relative;}#sk-container-id-4 div.sk-item::before, #sk-container-id-4 div.sk-parallel-item::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: -1;}#sk-container-id-4 div.sk-parallel-item {display: flex;flex-direction: column;z-index: 1;position: relative;background-color: white;}#sk-container-id-4 div.sk-parallel-item:first-child::after {align-self: flex-end;width: 50%;}#sk-container-id-4 div.sk-parallel-item:last-child::after {align-self: flex-start;width: 50%;}#sk-container-id-4 div.sk-parallel-item:only-child::after {width: 0;}#sk-container-id-4 div.sk-dashed-wrapped {border: 1px dashed gray;margin: 0 0.4em 0.5em 0.4em;box-sizing: border-box;padding-bottom: 0.4em;background-color: white;}#sk-container-id-4 div.sk-label label {font-family: monospace;font-weight: bold;display: inline-block;line-height: 1.2em;}#sk-container-id-4 div.sk-label-container {text-align: center;}#sk-container-id-4 div.sk-container {/* jupyter's `normalize.less` sets `[hidden] { display: none; }` but bootstrap.min.css set `[hidden] { display: none !important; }` so we also need the `!important` here to be able to override the default hidden behavior on the sphinx rendered scikit-learn.org. See: https://github.com/scikit-learn/scikit-learn/issues/21755 */display: inline-block !important;position: relative;}#sk-container-id-4 div.sk-text-repr-fallback {display: none;}</style><div id=\\\"sk-container-id-4\\\" class=\\\"sk-top-container\\\"><div class=\\\"sk-text-repr-fallback\\\"><pre>FrozenFeaturizer(model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=187, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(187, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=187, out_features=151, bias=True)\\n\",\n       \"    (dr...\\n\",\n       \"    (normalizer): BatchNorm1d(110, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=110, out_features=102, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(102, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=102, out_features=1, bias=True)\\n\",\n       \"))</pre><b>In a Jupyter environment, please rerun this cell to show the HTML representation or trust the notebook. <br />On GitHub, the HTML representation is unable to render, please try loading this page with nbviewer.org.</b></div><div class=\\\"sk-container\\\" hidden><div class=\\\"sk-item\\\"><div class=\\\"sk-estimator sk-toggleable\\\"><input class=\\\"sk-toggleable__control sk-hidden--visually\\\" id=\\\"sk-estimator-id-4\\\" type=\\\"checkbox\\\" checked><label for=\\\"sk-estimator-id-4\\\" class=\\\"sk-toggleable__label sk-toggleable__label-arrow\\\">FrozenFeaturizer</label><div class=\\\"sk-toggleable__content\\\"><pre>FrozenFeaturizer(model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=187, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(187, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=187, out_features=151, bias=True)\\n\",\n       \"    (dr...\\n\",\n       \"    (normalizer): BatchNorm1d(110, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=110, out_features=102, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(102, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=102, out_features=1, bias=True)\\n\",\n       \"))</pre></div></div></div></div></div>\"\n      ],\n      \"text/plain\": [\n       \"FrozenFeaturizer(model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=187, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(187, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=187, out_features=151, bias=True)\\n\",\n       \"    (dr...\\n\",\n       \"    (normalizer): BatchNorm1d(110, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=110, out_features=102, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1, inplace=False)\\n\",\n       \"    (normalizer): BatchNorm1d(102, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=102, out_features=1, bias=True)\\n\",\n       \"))\"\n      ]\n     },\n     \"execution_count\": 14,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# --- import necessary libraries\\n\",\n    \"\\n\",\n    \"from xenonpy.descriptor import FrozenFeaturizer\\n\",\n    \"\\n\",\n    \"trainer.reset(to='mae_1')\\n\",\n    \"\\n\",\n    \"# --- init FrozenFeaturizer with NN model\\n\",\n    \"ff = FrozenFeaturizer(model=trainer.model)\\n\",\n    \"ff\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"The following code will generate new \\\"neural descriptors\\\" from the corresponding neural network model.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>L(-1)_1</th>\\n\",\n       \"      <th>L(-1)_2</th>\\n\",\n       \"      <th>L(-1)_3</th>\\n\",\n       \"      <th>L(-1)_4</th>\\n\",\n       \"      <th>L(-1)_5</th>\\n\",\n       \"      <th>L(-1)_6</th>\\n\",\n       \"      <th>L(-1)_7</th>\\n\",\n       \"      <th>L(-1)_8</th>\\n\",\n       \"      <th>L(-1)_9</th>\\n\",\n       \"      <th>L(-1)_10</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>L(-1)_93</th>\\n\",\n       \"      <th>L(-1)_94</th>\\n\",\n       \"      <th>L(-1)_95</th>\\n\",\n       \"      <th>L(-1)_96</th>\\n\",\n       \"      <th>L(-1)_97</th>\\n\",\n       \"      <th>L(-1)_98</th>\\n\",\n       \"      <th>L(-1)_99</th>\\n\",\n       \"      <th>L(-1)_100</th>\\n\",\n       \"      <th>L(-1)_101</th>\\n\",\n       \"      <th>L(-1)_102</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>MOL1</th>\\n\",\n       \"      <td>0.197377</td>\\n\",\n       \"      <td>0.651708</td>\\n\",\n       \"      <td>-1.680189</td>\\n\",\n       \"      <td>-1.838958</td>\\n\",\n       \"      <td>-1.121671</td>\\n\",\n       \"      <td>-0.144814</td>\\n\",\n       \"      <td>-0.519181</td>\\n\",\n       \"      <td>-0.340774</td>\\n\",\n       \"      <td>-0.579195</td>\\n\",\n       \"      <td>-1.146178</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>-0.146019</td>\\n\",\n       \"      <td>-0.599903</td>\\n\",\n       \"      <td>-0.168826</td>\\n\",\n       \"      <td>0.135178</td>\\n\",\n       \"      <td>0.607779</td>\\n\",\n       \"      <td>0.700811</td>\\n\",\n       \"      <td>-1.405137</td>\\n\",\n       \"      <td>-0.209901</td>\\n\",\n       \"      <td>-0.297132</td>\\n\",\n       \"      <td>0.071797</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>MOL2</th>\\n\",\n       \"      <td>0.248826</td>\\n\",\n       \"      <td>1.177204</td>\\n\",\n       \"      <td>-2.156859</td>\\n\",\n       \"      <td>-2.349180</td>\\n\",\n       \"      <td>-1.382748</td>\\n\",\n       \"      <td>-0.333331</td>\\n\",\n       \"      <td>0.124294</td>\\n\",\n       \"      <td>-0.419852</td>\\n\",\n       \"      <td>-0.092012</td>\\n\",\n       \"      <td>-0.935228</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.026329</td>\\n\",\n       \"      <td>-0.161609</td>\\n\",\n       \"      <td>-0.542276</td>\\n\",\n       \"      <td>0.246088</td>\\n\",\n       \"      <td>1.047052</td>\\n\",\n       \"      <td>0.067111</td>\\n\",\n       \"      <td>-1.963629</td>\\n\",\n       \"      <td>-0.109732</td>\\n\",\n       \"      <td>-0.328646</td>\\n\",\n       \"      <td>0.103320</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>MOL3</th>\\n\",\n       \"      <td>0.187165</td>\\n\",\n       \"      <td>0.681242</td>\\n\",\n       \"      <td>-1.657468</td>\\n\",\n       \"      <td>-1.815903</td>\\n\",\n       \"      <td>-1.112543</td>\\n\",\n       \"      <td>-0.149633</td>\\n\",\n       \"      <td>-0.434844</td>\\n\",\n       \"      <td>-0.333764</td>\\n\",\n       \"      <td>-0.504946</td>\\n\",\n       \"      <td>-1.084423</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>-0.118927</td>\\n\",\n       \"      <td>-0.526747</td>\\n\",\n       \"      <td>-0.172702</td>\\n\",\n       \"      <td>0.154083</td>\\n\",\n       \"      <td>0.656889</td>\\n\",\n       \"      <td>0.607650</td>\\n\",\n       \"      <td>-1.418730</td>\\n\",\n       \"      <td>-0.193771</td>\\n\",\n       \"      <td>-0.278343</td>\\n\",\n       \"      <td>0.091769</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>3 rows × 102 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"       L(-1)_1   L(-1)_2   L(-1)_3   L(-1)_4   L(-1)_5   L(-1)_6   L(-1)_7  \\\\\\n\",\n       \"MOL1  0.197377  0.651708 -1.680189 -1.838958 -1.121671 -0.144814 -0.519181   \\n\",\n       \"MOL2  0.248826  1.177204 -2.156859 -2.349180 -1.382748 -0.333331  0.124294   \\n\",\n       \"MOL3  0.187165  0.681242 -1.657468 -1.815903 -1.112543 -0.149633 -0.434844   \\n\",\n       \"\\n\",\n       \"       L(-1)_8   L(-1)_9  L(-1)_10  ...  L(-1)_93  L(-1)_94  L(-1)_95  \\\\\\n\",\n       \"MOL1 -0.340774 -0.579195 -1.146178  ... -0.146019 -0.599903 -0.168826   \\n\",\n       \"MOL2 -0.419852 -0.092012 -0.935228  ...  0.026329 -0.161609 -0.542276   \\n\",\n       \"MOL3 -0.333764 -0.504946 -1.084423  ... -0.118927 -0.526747 -0.172702   \\n\",\n       \"\\n\",\n       \"      L(-1)_96  L(-1)_97  L(-1)_98  L(-1)_99  L(-1)_100  L(-1)_101  L(-1)_102  \\n\",\n       \"MOL1  0.135178  0.607779  0.700811 -1.405137  -0.209901  -0.297132   0.071797  \\n\",\n       \"MOL2  0.246088  1.047052  0.067111 -1.963629  -0.109732  -0.328646   0.103320  \\n\",\n       \"MOL3  0.154083  0.656889  0.607650 -1.418730  -0.193771  -0.278343   0.091769  \\n\",\n       \"\\n\",\n       \"[3 rows x 102 columns]\"\n      ]\n     },\n     \"execution_count\": 18,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"neural_descriptors = ff.transform(desc.loc[polymer.index], depth=1 ,return_type='df')\\n\",\n    \"neural_descriptors.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 20,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<style>#sk-container-id-5 {color: black;background-color: white;}#sk-container-id-5 pre{padding: 0;}#sk-container-id-5 div.sk-toggleable {background-color: white;}#sk-container-id-5 label.sk-toggleable__label {cursor: pointer;display: block;width: 100%;margin-bottom: 0;padding: 0.3em;box-sizing: border-box;text-align: center;}#sk-container-id-5 label.sk-toggleable__label-arrow:before {content: \\\"▸\\\";float: left;margin-right: 0.25em;color: #696969;}#sk-container-id-5 label.sk-toggleable__label-arrow:hover:before {color: black;}#sk-container-id-5 div.sk-estimator:hover label.sk-toggleable__label-arrow:before {color: black;}#sk-container-id-5 div.sk-toggleable__content {max-height: 0;max-width: 0;overflow: hidden;text-align: left;background-color: #f0f8ff;}#sk-container-id-5 div.sk-toggleable__content pre {margin: 0.2em;color: black;border-radius: 0.25em;background-color: #f0f8ff;}#sk-container-id-5 input.sk-toggleable__control:checked~div.sk-toggleable__content {max-height: 200px;max-width: 100%;overflow: auto;}#sk-container-id-5 input.sk-toggleable__control:checked~label.sk-toggleable__label-arrow:before {content: \\\"▾\\\";}#sk-container-id-5 div.sk-estimator input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-5 div.sk-label input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-5 input.sk-hidden--visually {border: 0;clip: rect(1px 1px 1px 1px);clip: rect(1px, 1px, 1px, 1px);height: 1px;margin: -1px;overflow: hidden;padding: 0;position: absolute;width: 1px;}#sk-container-id-5 div.sk-estimator {font-family: monospace;background-color: #f0f8ff;border: 1px dotted black;border-radius: 0.25em;box-sizing: border-box;margin-bottom: 0.5em;}#sk-container-id-5 div.sk-estimator:hover {background-color: #d4ebff;}#sk-container-id-5 div.sk-parallel-item::after {content: \\\"\\\";width: 100%;border-bottom: 1px solid gray;flex-grow: 1;}#sk-container-id-5 div.sk-label:hover label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-5 div.sk-serial::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: 0;}#sk-container-id-5 div.sk-serial {display: flex;flex-direction: column;align-items: center;background-color: white;padding-right: 0.2em;padding-left: 0.2em;position: relative;}#sk-container-id-5 div.sk-item {position: relative;z-index: 1;}#sk-container-id-5 div.sk-parallel {display: flex;align-items: stretch;justify-content: center;background-color: white;position: relative;}#sk-container-id-5 div.sk-item::before, #sk-container-id-5 div.sk-parallel-item::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: -1;}#sk-container-id-5 div.sk-parallel-item {display: flex;flex-direction: column;z-index: 1;position: relative;background-color: white;}#sk-container-id-5 div.sk-parallel-item:first-child::after {align-self: flex-end;width: 50%;}#sk-container-id-5 div.sk-parallel-item:last-child::after {align-self: flex-start;width: 50%;}#sk-container-id-5 div.sk-parallel-item:only-child::after {width: 0;}#sk-container-id-5 div.sk-dashed-wrapped {border: 1px dashed gray;margin: 0 0.4em 0.5em 0.4em;box-sizing: border-box;padding-bottom: 0.4em;background-color: white;}#sk-container-id-5 div.sk-label label {font-family: monospace;font-weight: bold;display: inline-block;line-height: 1.2em;}#sk-container-id-5 div.sk-label-container {text-align: center;}#sk-container-id-5 div.sk-container {/* jupyter's `normalize.less` sets `[hidden] { display: none; }` but bootstrap.min.css set `[hidden] { display: none !important; }` so we also need the `!important` here to be able to override the default hidden behavior on the sphinx rendered scikit-learn.org. See: https://github.com/scikit-learn/scikit-learn/issues/21755 */display: inline-block !important;position: relative;}#sk-container-id-5 div.sk-text-repr-fallback {display: none;}</style><div id=\\\"sk-container-id-5\\\" class=\\\"sk-top-container\\\"><div class=\\\"sk-text-repr-fallback\\\"><pre>Splitter(random_state=0, size=1069, test_size=0.1)</pre><b>In a Jupyter environment, please rerun this cell to show the HTML representation or trust the notebook. <br />On GitHub, the HTML representation is unable to render, please try loading this page with nbviewer.org.</b></div><div class=\\\"sk-container\\\" hidden><div class=\\\"sk-item\\\"><div class=\\\"sk-estimator sk-toggleable\\\"><input class=\\\"sk-toggleable__control sk-hidden--visually\\\" id=\\\"sk-estimator-id-5\\\" type=\\\"checkbox\\\" checked><label for=\\\"sk-estimator-id-5\\\" class=\\\"sk-toggleable__label sk-toggleable__label-arrow\\\">Splitter</label><div class=\\\"sk-toggleable__content\\\"><pre>Splitter(random_state=0, size=1069, test_size=0.1)</pre></div></div></div></div></div>\"\n      ],\n      \"text/plain\": [\n       \"Splitter(random_state=0, size=1069, test_size=0.1)\"\n      ]\n     },\n     \"execution_count\": 20,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.datatools import Splitter\\n\",\n    \"\\n\",\n    \"splitter = Splitter(size=neural_descriptors.shape[0], random_state=0, test_size=0.1)\\n\",\n    \"splitter\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 21,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(962, 102)\"\n      ]\n     },\n     \"execution_count\": 21,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(962,)\"\n      ]\n     },\n     \"execution_count\": 21,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(107, 102)\"\n      ]\n     },\n     \"execution_count\": 21,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(107,)\"\n      ]\n     },\n     \"execution_count\": 21,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"x_train, x_test, y_train, y_test = splitter.split(neural_descriptors, polymer.refractive_index)\\n\",\n    \"\\n\",\n    \"x_train.shape\\n\",\n    \"y_train.shape\\n\",\n    \"x_test.shape\\n\",\n    \"y_test.shape\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 23,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<style>#sk-container-id-6 {color: black;background-color: white;}#sk-container-id-6 pre{padding: 0;}#sk-container-id-6 div.sk-toggleable {background-color: white;}#sk-container-id-6 label.sk-toggleable__label {cursor: pointer;display: block;width: 100%;margin-bottom: 0;padding: 0.3em;box-sizing: border-box;text-align: center;}#sk-container-id-6 label.sk-toggleable__label-arrow:before {content: \\\"▸\\\";float: left;margin-right: 0.25em;color: #696969;}#sk-container-id-6 label.sk-toggleable__label-arrow:hover:before {color: black;}#sk-container-id-6 div.sk-estimator:hover label.sk-toggleable__label-arrow:before {color: black;}#sk-container-id-6 div.sk-toggleable__content {max-height: 0;max-width: 0;overflow: hidden;text-align: left;background-color: #f0f8ff;}#sk-container-id-6 div.sk-toggleable__content pre {margin: 0.2em;color: black;border-radius: 0.25em;background-color: #f0f8ff;}#sk-container-id-6 input.sk-toggleable__control:checked~div.sk-toggleable__content {max-height: 200px;max-width: 100%;overflow: auto;}#sk-container-id-6 input.sk-toggleable__control:checked~label.sk-toggleable__label-arrow:before {content: \\\"▾\\\";}#sk-container-id-6 div.sk-estimator input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-6 div.sk-label input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-6 input.sk-hidden--visually {border: 0;clip: rect(1px 1px 1px 1px);clip: rect(1px, 1px, 1px, 1px);height: 1px;margin: -1px;overflow: hidden;padding: 0;position: absolute;width: 1px;}#sk-container-id-6 div.sk-estimator {font-family: monospace;background-color: #f0f8ff;border: 1px dotted black;border-radius: 0.25em;box-sizing: border-box;margin-bottom: 0.5em;}#sk-container-id-6 div.sk-estimator:hover {background-color: #d4ebff;}#sk-container-id-6 div.sk-parallel-item::after {content: \\\"\\\";width: 100%;border-bottom: 1px solid gray;flex-grow: 1;}#sk-container-id-6 div.sk-label:hover label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-6 div.sk-serial::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: 0;}#sk-container-id-6 div.sk-serial {display: flex;flex-direction: column;align-items: center;background-color: white;padding-right: 0.2em;padding-left: 0.2em;position: relative;}#sk-container-id-6 div.sk-item {position: relative;z-index: 1;}#sk-container-id-6 div.sk-parallel {display: flex;align-items: stretch;justify-content: center;background-color: white;position: relative;}#sk-container-id-6 div.sk-item::before, #sk-container-id-6 div.sk-parallel-item::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: -1;}#sk-container-id-6 div.sk-parallel-item {display: flex;flex-direction: column;z-index: 1;position: relative;background-color: white;}#sk-container-id-6 div.sk-parallel-item:first-child::after {align-self: flex-end;width: 50%;}#sk-container-id-6 div.sk-parallel-item:last-child::after {align-self: flex-start;width: 50%;}#sk-container-id-6 div.sk-parallel-item:only-child::after {width: 0;}#sk-container-id-6 div.sk-dashed-wrapped {border: 1px dashed gray;margin: 0 0.4em 0.5em 0.4em;box-sizing: border-box;padding-bottom: 0.4em;background-color: white;}#sk-container-id-6 div.sk-label label {font-family: monospace;font-weight: bold;display: inline-block;line-height: 1.2em;}#sk-container-id-6 div.sk-label-container {text-align: center;}#sk-container-id-6 div.sk-container {/* jupyter's `normalize.less` sets `[hidden] { display: none; }` but bootstrap.min.css set `[hidden] { display: none !important; }` so we also need the `!important` here to be able to override the default hidden behavior on the sphinx rendered scikit-learn.org. See: https://github.com/scikit-learn/scikit-learn/issues/21755 */display: inline-block !important;position: relative;}#sk-container-id-6 div.sk-text-repr-fallback {display: none;}</style><div id=\\\"sk-container-id-6\\\" class=\\\"sk-top-container\\\"><div class=\\\"sk-text-repr-fallback\\\"><pre>RandomForestRegressor()</pre><b>In a Jupyter environment, please rerun this cell to show the HTML representation or trust the notebook. <br />On GitHub, the HTML representation is unable to render, please try loading this page with nbviewer.org.</b></div><div class=\\\"sk-container\\\" hidden><div class=\\\"sk-item\\\"><div class=\\\"sk-estimator sk-toggleable\\\"><input class=\\\"sk-toggleable__control sk-hidden--visually\\\" id=\\\"sk-estimator-id-6\\\" type=\\\"checkbox\\\" checked><label for=\\\"sk-estimator-id-6\\\" class=\\\"sk-toggleable__label sk-toggleable__label-arrow\\\">RandomForestRegressor</label><div class=\\\"sk-toggleable__content\\\"><pre>RandomForestRegressor()</pre></div></div></div></div></div>\"\n      ],\n      \"text/plain\": [\n       \"RandomForestRegressor()\"\n      ]\n     },\n     \"execution_count\": 23,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# random forest\\n\",\n    \"from sklearn.ensemble import RandomForestRegressor\\n\",\n    \"\\n\",\n    \"rf = RandomForestRegressor(n_estimators=100)\\n\",\n    \"rf.fit(x_train, y_train)\\n\",\n    \"\\n\",\n    \"y_pred = rf.predict(x_test)\\n\",\n    \"y_fit_pred = rf.predict(x_train)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 27,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 1200x1200 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"ax = cv_plot(y_pred, y_test.values, y_fit_pred, y_train.values, title='Refractive Index')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"転移学習が成功！\\n\",\n    \"\\n\",\n    \"演習18と合して，有機ポリマーから無機結晶の屈折率を予測する転移学習のモデルが作れます．結論でいうと，有機から無機の転移学習が成功しないが，余裕があれば自分で試してみてください．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3 (ipykernel)\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.8.13\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "mi_book/exercise_2-10.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 演習2）配布したSMILES形式の化学構造をMOLオブジェクトという形式に変換し，化学構造を描画せよ．\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"必要なパッケージ\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import os\\n\",\n    \"import numpy as np\\n\",\n    \"import pandas as pd\\n\",\n    \"import matplotlib.pyplot as plt\\n\",\n    \"from rdkit import Chem\\n\",\n    \"from rdkit.Chem import Draw\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"データを導入\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# set file directory\\n\",\n    \"dir_file = 'data/Book_data_MD.csv'\\n\",\n    \"# load csv data using pandas DataFrame\\n\",\n    \"data = pd.read_csv(dir_file)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"データの確認：1列目に分子SMILESを格納し、次に4列のプロパティデータを格納する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {\n    \"scrolled\": true\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"                                                SMILES  thermal_conductivity  \\\\\\n\",\n      \"0                                         *C(C*)OCCCCC              0.238333   \\n\",\n      \"1                                 *C(C*)c1c(cccc1Cl)Cl              0.106015   \\n\",\n      \"2                         *C(C*)OC(=O)C(CC(C)(C)C)(C)C              0.160536   \\n\",\n      \"3                             *C(C*)c1ccc(cc1)C(=O)CCC              0.212112   \\n\",\n      \"4    *Oc1ccc(cc1)C(c1ccc(cc1)OC(=O)c1ccc(cc1)C(=O)*...              0.255520   \\n\",\n      \"..                                                 ...                   ...   \\n\",\n      \"295                             *C(C*)c1ccc(cc1)C(CC)C              0.195530   \\n\",\n      \"296                         *C(C*)c1c(cccc1)C(=O)N(C)C              0.160694   \\n\",\n      \"297                            *C1C(=O)OC(=O)C1C(C*)OC              0.157722   \\n\",\n      \"298                   *C(C*)C(=O)OC1C2(CCC(C1)C2(C)C)C              0.150222   \\n\",\n      \"299  *c1cccc(Oc2ccc(N3C(=O)c4ccc(-c5ccc6c(c5)C(=O)N...              0.200290   \\n\",\n      \"\\n\",\n      \"      density        Cp  linear_expansion  \\n\",\n      \"0    0.865349  4666.863          0.000419  \\n\",\n      \"1    1.236709  2136.438          0.000159  \\n\",\n      \"2    0.864623  3679.101          0.000215  \\n\",\n      \"3    0.982749  3499.680          0.000207  \\n\",\n      \"4    1.102032  2898.134          0.000090  \\n\",\n      \"..        ...       ...               ...  \\n\",\n      \"295  0.866885  3888.902          0.000227  \\n\",\n      \"296  0.963477  3348.315          0.000216  \\n\",\n      \"297  1.208488  2967.060          0.000108  \\n\",\n      \"298  0.913346  3497.125          0.000172  \\n\",\n      \"299  1.211274  2467.388          0.000088  \\n\",\n      \"\\n\",\n      \"[300 rows x 5 columns]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"print(data)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"データの最初の分子を描く\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"iVBORw0KGgoAAAANSUhEUgAAASwAAAEsCAIAAAD2HxkiAAABNHRFWHRyZGtpdFBLTCByZGtpdCAyMDIwLjA5LjMA776t3gAAAAAMAAAAAQAAAAAAAAAKAAAACQAAAIABAAQoAAAAAAEsAQAAACoGAGAAAAADAQYAYAAAAAICAAQoAAAAAAEsAQAAACoIACAAAAACBgBgAAAAAgIGAGAAAAACAgYAYAAAAAICBgBgAAAAAgIGAGAAAAABAwsAAQABAgACAwABBAAEBQAFBgAGBwAHCAAICQAUABcBAAAAAAAAAAAK5ql7wJxUmT8AAAAAj2AtwMfRqD4AAAAATlo2wEH0lL8AAAAA7yHQvzYKAsAAAAAA8jqsv/Z5dD8AAAAASYT6vRDNsT0AAAAA592eP7RKNj8AAAAASrgdQH7WH74AAAAAYPt0QOU28D4AAAAAXKKhQMJJzL4AAAAAFnRqC/oAAAONdEVYdE1PTCByZGtpdCAyMDIwLjA5LjMACiAgICAgUkRLaXQgICAgICAgICAgMkQKCiAxMCAgOSAgMCAgMCAgMCAgMCAgMCAgMCAgMCAgMDk5OSBWMjAwMAogICAtMy45MzIyICAgIDEuMTk3OSAgICAwLjAwMDAgUiAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAKICAgLTIuNzA5MCAgICAwLjMyOTcgICAgMC4wMDAwIEMgICAwICAwICAwICAwICAwICAwICAwICAwICAwICAwICAwICAwCiAgIC0yLjg0OTMgICAtMS4xNjM3ICAgIDAuMDAwMCBDICAgMCAgMCAgMCAgMCAgMCAgMCAgMCAgMCAgMCAgMCAgMCAgMAogICAtMS42MjYwICAgLTIuMDMxOSAgICAwLjAwMDAgUiAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAKICAgLTEuMzQ1NSAgICAwLjk1NTAgICAgMC4wMDAwIE8gICAwICAwICAwICAwICAwICAwICAwICAwICAwICAwICAwICAwCiAgIC0wLjEyMjMgICAgMC4wODY4ICAgIDAuMDAwMCBDICAgMCAgMCAgMCAgMCAgMCAgMCAgMCAgMCAgMCAgMCAgMCAgMAogICAgMS4yNDExICAgIDAuNzEyMSAgICAwLjAwMDAgQyAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAKICAgIDIuNDY0NCAgIC0wLjE1NjEgICAgMC4wMDAwIEMgICAwICAwICAwICAwICAwICAwICAwICAwICAwICAwICAwICAwCiAgICAzLjgyNzggICAgMC40NjkyICAgIDAuMDAwMCBDICAgMCAgMCAgMCAgMCAgMCAgMCAgMCAgMCAgMCAgMCAgMCAgMAogICAgNS4wNTExICAgLTAuMzk5MCAgICAwLjAwMDAgQyAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAgIDAKICAxICAyICAxICAwCiAgMiAgMyAgMSAgMAogIDMgIDQgIDEgIDAKICAyICA1ICAxICAwCiAgNSAgNiAgMSAgMAogIDYgIDcgIDEgIDAKICA3ICA4ICAxICAwCiAgOCAgOSAgMSAgMAogIDkgMTAgIDEgIDAKTSAgRU5ECiJx+3YAAAEHdEVYdFNNSUxFUyByZGtpdCAyMDIwLjA5LjMAKkNDKCopT0NDQ0NDIHwoLTEuNjI2MDQsLTIuMDMxODcsOy0yLjg0OTI2LC0xLjE2MzcsOy0yLjcwOTAyLDAuMzI5NzI1LDstMy45MzIyNCwxLjE5Nzg5LDstMS4zNDU1NSwwLjk1NDk4Niw7LTAuMTIyMzIzLDAuMDg2ODE2OSw7MS4yNDExNSwwLjcxMjA3Nyw7Mi40NjQzNywtMC4xNTYwOTIsOzMuODI3ODQsMC40NjkxNjksOzUuMDUxMDcsLTAuMzk5LCksYXRvbVByb3A6MC5kdW1teUxhYmVsLio6My5kdW1teUxhYmVsLip8dl9OKgAAFJBJREFUeJzt3XtQVPX/x/H3cpGbrndhvaCWiAnmDcULucM4eEkqNUgroBlnwklt0dC0aea7NWkxk8ys9U2/VDSDeUlMUcxLFErhvQhBxTsqmtwERZQFlt3P749D/Ahv7LK77wP7evzV4HL2HXOeu+eze/asQghBAMDHiXsAAEeHCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGBmXoRCiKioqPz8fBtNA+CAWhthQ0PD9evXFQrFlStXlEplbW1tRUWFTScDcBCtjTAvL2/KlCnLly/38vLauXNncHDwt99+a9PJAByESytvN3bs2JMnT/7yyy/p6enl5eW7d+8eOHCgTScDcBBmrAmdnZ2Tk5O/+eabjIyM0tJShUJhu7EAHIcZEf7888/+/v5qtXrBggXp6em2mwnAoSiEEK2/tdFodHZ2Pnv2LBEFBATYbCoAB2JehERUX18/c+bMy5cvazSaZcuWOTl1xHcaz52jM2fo/n3q04cmTqQePbgHgo7M7IRMJlNwcHBDQ0NiYuLrr79eUlJii7HY/PknBQXR8OH02mu0YAGFh5O3Ny1cSDU13JNBxyUskpWVNWrUKJVK5e/vn5aWZtlGZCc3V3TuLLp3F198Ia5dE5WV4uRJ8eabgkio1aKhgXs+6JgsjFAIUV5eHhMTo1KpVCrVu+++e//+fSuOxWPcOOHiIo4fb/nzhQsFkVi/nmMm6PjMXhO2eBbdvHmzVqvV6/W+vr5ffvnluHHjrPgsbVf5+TRyJL32Gm3b1vKfKiqoXz8KCKCcHI7JoINr08sqCoUiKirqwIEDgYGBRUVFr776amJiotFotNZwdnXsGBFRcPAj/qlnTxo9mvLysDIEW7DCa5t+fn579+6Nj483mUyJiYmzZ8++du1a2zdrb7duERE97jSgAQPIaKSyMntOBA7COm8wuLq6xsfH//DDDz4+Pjk5OdOnT//xxx+tsmX7MZmIiFwecx6fszMRUTt9kgd5s+a7fCEhIVlZWa+88kp1dbVGo1m4cGFVVZUVt29bvXoREd248eh/LSkhhaLxNgBWZeW32pVK5YYNG9atW+fl5bVnz56wsLDjx49b9y6srKqK1q6l6moaM4aI6OzZR9ymtpZyc+nZZ6lrVztPBw7BRq+6Xr9+/aWXXlKpVP3791+9enV9fb2N7shyxcVCqxXdugkisXataGgQvr6ie3dRWtryluvXCyLxn/9wTAkdn60iFEIYDIa1a9f2799fpVLNnDmzsLDQdvdlnvx8ERMjXF0FkSASU6eKrCwhhNi2TRCJoCBx4ULjLY1G8f33wsNDDBgg7t4VQojt20VKCtvk0BHZMELJsWPHgoKCVCrVjBkzvvvuO1vf3VNkZ4vwcKFQCCLh5CTCw1u+Nf/f/wp3d6FQiOHDRUiI8PERRGLYMHH+vBBClJU1PnPOmyfu3OH4H4AOyOYRCiGqqqri4uK8vb2JKCIioqKiwg53+i9Go0hPFxMmND71ubmJ6Oj/f7pr4cYNsXatiIkRkZFi8WKRmiqaH0unpjZ2OGCAOHTILtPb0M2bN3fu3Hns2DGDwcA9i+OyR4SS1NTU7t27E5GPj8/+/fvtdK+1tSIlRfj7N+bXu7fQasXt223a5tWrIiREEAmFQmg0oq7OSrPa1cWLFzUajbu7u5ubm7u7+7hx4y5evMg9lIOyX4RCiGvXrk2ZMoWIFAqFRqOpra214Z2VlQmtVvTq1ZjfM88InU48eGCdjRsMIiGhcVUZFNR4sNpOZGVlzZo1S7owgrOz89SpU/v160dEnTt3Tk5O5p7OEdk1QiFEQ0NDQkKCq6srEQUGBubl5Vn/PgoLhUYjPD0b8xszRqSk2OQzEMePiyFDBJHw8BA6nfW3b1VGozE9PX3ixInSq+Jubm7R0dHnz58XQlRVVUVFRUk/nzt37u02HimAmewdoeTkyZN+fn5E5O7urtPpTCaTVTZ74sSJ1yIjDb6+jceKL70kfv/dKlt+rHv3RGxsY+0zZojiYtvenUVqa2tTUlKGDRsmZdarV6+VK1feunWrxc2arxf27dvHMqpj4olQCPHgwQONRiPtFtOnT394n2g9k8n0008/qdVqaWupoaFiwQJx9qwVp32K7dtFjx6CSHh7i7177Xe/T1NeXp6QkKBSqaS/zODBg3U63YPHH5Pbdb0A/2CLULJjx46ePXsSUZ8+ffbs2WPur9fV1aWkpDRd7aZLly4ajebGjRu2GPUpioqEWt34DBwba7XFp6UKCws1Go2Xl5f0lxk9enRKSkprXgK1x3oB/o05QiFEcXHxjBkzpEff2NjYJzxON3fv3j2dTjdgwABpJ/Px8dFqtXd437szmYROJzp1EkQiIECcOsUyRW5ubnR0tMs/Z6JPnjw5PT3d3I3YaL3ASK/XV1ZW1tTUcA/yCPwRCiFMJpNOp3NzcyOi55577q+//nrCjUtKSrRarbR6IaIRI0YkJSXp9Xq7TfsUf/whhg4VRMLd/c7//mfP3Tc7Ozs8PFz6s7i6ukZHR58+fdrirTVfL0ybNq0t6wVeVVVVOp2ub9++s2fP9vHx2Sun9YJEFhFKTp8+PWLECGkH0mq1RqOxxQ2a3tpq/hgvxwfpmhqh0RhcXCYGBoaFhf399982vbf6+vrU1NSgoKDmx+RFRUVW2Xgb1wu8rl692vyYvHfv3tIB17Jly2S13JVRhEIIvV6v0Wikt7CmTp168+ZN6efSY7z0cycnp/Dw8GPHjvGO+lRnf/qpV69e0u5rwQFha1RXV+t0Ol9fX2kn8/b21mq1lZWV1r0Xy9YLvE6dOvXwMbnRaNTpdJ06dSKigICAU0zrhYfJK0LJgQMHpBf0unXrFhcX13TdGk9PzyVLlly5coV7wNYqKSl58cUXpeGjo6OteC2sFsfkfn5+Op3OdsfkZq0XeDV/vHZ1dY2MjDx58mTzG/zxxx9Dhw6VlrsJCQkPH3DZnxwjFEKUlpZKyxvpWKh3795arba8vJx7LrOZTKakpCRPT08iGjZsWE5OThs3eOnSJa5j8qeuFxhJpyI0PV537txZo9Fcv379kTeuqalpWu7aYb3wVDKNUAhhMplGjRpFRLGxsfJ8Uav1zpw5M3LkSCJycXHRarUNFp2+k52dHRkZ6ezs3HRMfvToUauP+mSPWy8wanFM3qdPH61W25oPCaSlpUnrhd69e+/evdsOoz6OfCMUQowfP56I7L+r2YJer1+5cqX0rQGhoaGtfzNTeoyfNGmStJNJp5udO3fOptM+WfP1wtatW7nGKC0t1Wq1Pf75koIhQ4bodDqzHq9tt14wi6wjlB7eZPRp4DbLyMjo27cvEXXt2nXz5s1PvnErTzdj0bRekHbf6upqe9679FUoHh4eTcfkqamplh1fWH29YAH5RmgymaRXAtrFy3GtV1ZW9vLLLzftvvfu3Xv4Nnfv3pXe2pJuJp1uJrdrnDfffQcPHnzkyBE73Omff/4ZHR3d/JjcKvdrlfWCxeQbYUVFhfSMwT2ITaSkpEjvXw0aNCg7O7vp5y3e2ho1alQrTzfjUlBQMHr0aFvvvtIx+eTJk6U/S6dOnaKjowsKCqx4FxavF9pOvhFK34Lo7+/PPYitnDt3bsyYMdLuu3LlSukxvo2nm7Gora1t2n0nTJhg3feQpNODhw8fLv1ZlEqlRqOx3euZZq0XrEW+EWZmZhKRWq3mHsSG6urqVqxY0fw7Hl1dXWNiYvLz87lHM9uvv/4qfThYqVR+//33bd+gdLqZtE3pkCEhIeGudLktW2rNesG65Bvh5s2biWjevHncg9hcZmbm/Pnzp06dGh8fz/MRECu5c+fO/Pnzpd03MjLS4nN3bt26pdVqu/5zldeRI0fa/5j8cesFW5BvhImJiUQUFxfHPQiYJyUlpXPnzkQ0cODA3377zazfzcvLi46Olj5IZedTER7WYr1gu2vnyjfC999/n4g+/fRT7kHAbIWFhdIbm87Ozq3cfR8+PbjF6WYs6uvrtVqttF4IDg6+dOmSLe5FvhHGxMQQEf+lSsEiBoNBq9VK7yU84VJu0sue0lkZTaebXbt2zc7TPtnBgwf79+8vLXeTkpKsvn35Rjht2jQiwsVO2rWjR48+88wzROTp6an797Ww7t+/n5SUJH102KzTzVjcvXv3jTfekEa1+rVz5Rvh888/T0S5ubncg0CbPHwpt7KyMq1WK52aT0TPPvusuaebcUlJSenSpQsR+fr6ZklfnWAN8o2wT58+RFQsy+uXgbk2btyoVCql002lE6GIaNKkSWlpabL6NMZTXb16NSQkhP65FladNS79LNMIDQaDk5OTk5OTnE8WAbNIl3ILCwuTXnc5fPgw90QWMhgMTdfCCgoKuvC471NoNYUQguTn1q1b/fr18/HxKS4u5p4FrMZoNNbV1ZWUlEgLxXbtxIkTUVFRly9f9vDw+Oyzz+Li4izelJW/JNRaSkpKiMjHx4d7ELAmZ2dnT0/PDlAgEQUHB+fk5MTGxur1+qVLl86ZM+f27duWbQoRAlhIesdi+/btPXr02LVrV2Bg4L59+yzYDiIEaJOIiIjc3Fy1Wi19xnLhwoU1NTVmbQERArSVr6/voUOHdDqdq6vr119/PX78+Ly8vNb/ukwjLC0tJSLpe0UB5E+hUMTFxR0+fHjo0KFnz56dOHHi+vXrW/m7Mo0Qz4TQHo0bN+7UqVMajUav10tPJK3hYtOZLIYIoZ3y8PBYt25deHh4aGhoK39FphFKbw8iQminwsLCWn9jHI4CMJPjGTM1NTVeXl7u7u56vZ57FgCbk+MzIY5FwaHIMUIci4JDQYQAzBAhADM5RojTZcChyDFCPBOCQ0GEAMwQIQAzRAjATHZnzAgh3N3d6+vra2pqmr4FEqADk90zYWVlZX19fffu3VEgOAjZRYhjUXA0iBCAGSIEYIYIAZjJLkKcswaORnYR4pkQHA0iBGAmuwhDQkK8vb03bNhQXV3NPQuAPcguwrlz51ZXV+/evXv06NHHjx/nHgfA5mQXYWBgYE5OzpgxY65cufLCCy+sWrXKYDBwDwVgQ7I7d1RiMBjWrFnzySefmEym4ODgTZs2DRkyhHsoAJuQaYSSQ4cOxcTE3Lx5U6lUfv7557GxsdwTAVifrCMkoqqqqkWLFm3ZsoWIIiIikpKSevTowT0UgDXJPULJxo0blyxZUl1d7evru3HjRrVazT0RgNXI7oWZR4qJicnPzw8JCSkqKgoNDY2Li6uvr+ceCsA62keERDRo0KBDhw4lJCS4uLh88cUXkydPvnjxIvdQAFbQPg5Hmztx4kRUVNTly5c9PDw+++yzuLg47okA2qTdPBM2CQ4OzsnJiY2N1ev1S5cunTNnzu3bt7mHArBc+4uQiJRKZVJS0tatW7t167Zr167p06f//vvv3EMBWKj9HY42V1RU9NZbb3Xq1OnMmTNvvvnmxx9/jCvTQLvTLp8Jm/j6+mZmZs6aNcvFxWXTpk3h4eEXLlzgHgrAPO37mbBJXl7e4sWLCwsL3dzcli9f/s477zg5te/HF3AcHSRCIqqtrV2zZk1ycjIRTZkyZd26dfh4PrQLHSdCyf79+1esWFFZWdmzZ8/ExMRp06ZxTwTwFB0tQiIqLy9/7733MjMziSgiIiIhIcHT05N7KIDH6oAREpEQIjk5efXq1fX19UOGDPnqq69GjBjBPRTAo3XMCCUXLlxYvHhxQUGBq6urRqNZtmwZXq0BGerIO6W/v//evXsXL15sNBoTExPnzZtXXFzc4jarV6/etm0by3gAko4cIRG5ubl9+OGHW7Zs8fb2PnLkSGhoaFpamvRP58+fJ6KKigoiMplMRUVFnIOCA+vIh6PNVVRUxMfHZ2RkEFFERMRHH300YcKEgIAApVKpUqmys7N9fHx27NjBPSY4IkeJULJ9+/YPPvhAqVQePHjQ3d09Nzd36dKlKpUqMTFx8ODBWDECC8eKkIguXbp07969sWPHGgyGt99+W61WHzhwQK1WL1q0iHs0cFAO99jv5+c3duxYIiooKCgrK4uKilq1alVGRkZdXR33aOCgHO6ZsDkhhEKhaP4fAPbn0BECyIHDHY4CyA0iBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgBkiBGCGCAGYIUIAZogQgNn/AXBn75BcqO/tAAAAAElFTkSuQmCC\",\n      \"text/plain\": [\n       \"<PIL.PngImagePlugin.PngImageFile image mode=RGB size=300x300 at 0x7FCE30A01460>\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# convert first SMILES to Mol format in RDKit\\n\",\n    \"smi = data['SMILES'][0]\\n\",\n    \"mol = Chem.MolFromSmiles(smi)\\n\",\n    \"# Draw molecule\\n\",\n    \"Draw.MolToImage(mol)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"ランダムに20個の分子を描画し、PNGファイルに保存する。\\n\",\n    \"\\n\",\n    \"[実行には数秒かかります]\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 8.08 s, sys: 350 ms, total: 8.43 s\\n\",\n      \"Wall time: 8.45 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# randomly pick 20 molecules from data\\n\",\n    \"np.random.seed(202202) # fix a random seed for reproducibility\\n\",\n    \"smis = data['SMILES'].sample(20)\\n\",\n    \"\\n\",\n    \"# set directory to save the PNG file\\n\",\n    \"dir_save = 'output/演習2'\\n\",\n    \"# create the folder if it does not exist\\n\",\n    \"os.makedirs(dir_save, exist_ok=True)\\n\",\n    \"\\n\",\n    \"# set number of rows and columns in the image (i.e., total number of molecules)\\n\",\n    \"n_Row, n_Col = 4, 5\\n\",\n    \"n_S = n_Col*n_Row\\n\",\n    \"\\n\",\n    \"# set up figure\\n\",\n    \"fig, ax = plt.subplots(n_Row, n_Col)\\n\",\n    \"_ = fig.set_size_inches(30, 30)\\n\",\n    \"_ = fig.set_tight_layout(True)\\n\",\n    \"# draw each molecule one-by-one\\n\",\n    \"for j, (idx, smi) in enumerate(smis.iteritems()):\\n\",\n    \"    xaxis = j // n_Col\\n\",\n    \"    yaxis = j % n_Col\\n\",\n    \"    # if fail to draw, leave the space blank\\n\",\n    \"    try:\\n\",\n    \"        img = Draw.MolToImage(Chem.MolFromSmiles(smi), size=(500, 500))\\n\",\n    \"        _ = ax[xaxis, yaxis].clear()\\n\",\n    \"        _ = ax[xaxis, yaxis].set_frame_on(False)\\n\",\n    \"        _ = ax[xaxis, yaxis].imshow(img)\\n\",\n    \"        _ = ax[xaxis, yaxis].text(1,10,f'Data index: {idx}', fontsize=32)\\n\",\n    \"    except:\\n\",\n    \"        pass\\n\",\n    \"    _ = ax[xaxis, yaxis].set_axis_off()\\n\",\n    \"_ = fig.savefig(f'{dir_save}/molecules.png',dpi = 500)\\n\",\n    \"_ = plt.close()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 演習3）例題の化学構造の内，GetSubstructMatchを用いてベンゼン’c1ccccc1’にマッチする原子のインデックスを取得し，RDKitのモジュールを使用して，ベンゼンをカラーハイライトして化学構造を図示せよ．\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"RDKitの関数を使って、部分構造を強調した2番目の分子をJupyterで直接描画する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# import the special module\\n\",\n    \"from rdkit.Chem.Draw import IPythonConsole\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<rdkit.Chem.rdchem.Mol at 0x7fcdb03b0460>\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# convert second SMILES to Mol format in RDKit\\n\",\n    \"smi = data['SMILES'][1]\\n\",\n    \"mol = Chem.MolFromSmiles(smi)\\n\",\n    \"# convert substructure SMILES to Mol format\\n\",\n    \"sub_mol = Chem.MolFromSmiles('c1ccccc1')\\n\",\n    \"# search for substructure\\n\",\n    \"mol.GetSubstructMatch(sub_mol)\\n\",\n    \"# directly show the results in Jupyter notebook\\n\",\n    \"mol\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"5番目の分子の部分構造を抽出する。\\n\",\n    \"\\n\",\n    \"注意：すべての部分構造が必要な場合は、別の関数が使われる!\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"(2, 3, 4, 5, 6, 7)\\n\",\n      \"((2, 3, 4, 5, 6, 7), (9, 10, 11, 12, 13, 14), (18, 19, 20, 21, 22, 23))\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# convert second SMILES to Mol format in RDKit\\n\",\n    \"smi = data['SMILES'][4]\\n\",\n    \"mol = Chem.MolFromSmiles(smi)\\n\",\n    \"# convert substructure SMILES to Mol format\\n\",\n    \"sub_mol = Chem.MolFromSmiles('c1ccccc1')\\n\",\n    \"\\n\",\n    \"# search for any substructure match and return atom indices in mol\\n\",\n    \"sub_atoms = mol.GetSubstructMatch(sub_mol)\\n\",\n    \"print(sub_atoms)\\n\",\n    \"\\n\",\n    \"# search for all substructure matches and return atom indices in mol\\n\",\n    \"sub_atoms = mol.GetSubstructMatches(sub_mol)\\n\",\n    \"print(sub_atoms)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"部分構造が強調された分子をランダムに20個描き、PNGファイルに保存する。\\n\",\n    \"\\n\",\n    \"[実行には数秒かかる]\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 7.99 s, sys: 177 ms, total: 8.17 s\\n\",\n      \"Wall time: 8.18 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# randomly pick 20 molecules from data\\n\",\n    \"np.random.seed(202202) # fix a random seed for reproducibility\\n\",\n    \"smis = data['SMILES'].sample(20)\\n\",\n    \"\\n\",\n    \"# set directory to save the PNG file\\n\",\n    \"dir_save = 'output/演習3'\\n\",\n    \"# create the folder if it does not exist\\n\",\n    \"os.makedirs(dir_save, exist_ok=True)\\n\",\n    \"\\n\",\n    \"# set number of rows and columns in the image (i.e., total number of molecules)\\n\",\n    \"n_Row, n_Col = 4, 5\\n\",\n    \"n_S = n_Col*n_Row\\n\",\n    \"\\n\",\n    \"# convert substructure SMILES to Mol format\\n\",\n    \"sub_mol = Chem.MolFromSmiles('c1ccccc1')\\n\",\n    \"\\n\",\n    \"# set up figure\\n\",\n    \"fig, ax = plt.subplots(n_Row, n_Col)\\n\",\n    \"_ = fig.set_size_inches(30, 30)\\n\",\n    \"_ = fig.set_tight_layout(True)\\n\",\n    \"# draw each molecule one-by-one\\n\",\n    \"for j, (idx, smi) in enumerate(smis.iteritems()):\\n\",\n    \"    xaxis = j // n_Col\\n\",\n    \"    yaxis = j % n_Col\\n\",\n    \"    # if fail to draw, leave the space blank\\n\",\n    \"    try:\\n\",\n    \"        mol = Chem.MolFromSmiles(smi)\\n\",\n    \"        # final all substructure matches\\n\",\n    \"        sub_atoms = mol.GetSubstructMatches(sub_mol)\\n\",\n    \"        # make the atom indices into a single list\\n\",\n    \"        sub_atoms_list = [item for sublist in sub_atoms for item in sublist]\\n\",\n    \"        img = Draw.MolToImage(mol, highlightAtoms=sub_atoms_list, size=(500, 500))\\n\",\n    \"        _ = ax[xaxis, yaxis].clear()\\n\",\n    \"        _ = ax[xaxis, yaxis].set_frame_on(False)\\n\",\n    \"        _ = ax[xaxis, yaxis].imshow(img)\\n\",\n    \"        _ = ax[xaxis, yaxis].text(1,10,f'Data index: {idx}', fontsize=32)\\n\",\n    \"    except:\\n\",\n    \"        pass\\n\",\n    \"    _ = ax[xaxis, yaxis].set_axis_off()\\n\",\n    \"_ = fig.savefig(f'{dir_save}/molecules_highlight.png',dpi = 500)\\n\",\n    \"_ = plt.close()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 演習4）アスピリンCC(=O)Oc1ccccc1C(=O)OのECFPフィンガープリント（Morganフィンガープリント）を計算せよ．ビット数をB=2048，半径をR=2とする．\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"RDKitを使用してECFPを計算する。\\n\",\n    \"\\n\",\n    \"注意：全く同じ計算をするモジュールが2つある。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {\n    \"scrolled\": true\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"<rdkit.DataStructs.cDataStructs.ExplicitBitVect object at 0x7fcdd052b760>\\n\",\n      \"[0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"from rdkit import Chem\\n\",\n    \"from rdkit.Chem import rdMolDescriptors as rdMol\\n\",\n    \"\\n\",\n    \"mol = Chem.MolFromSmiles('CC(=O)Oc1ccccc1C(=O)O')\\n\",\n    \"fp = rdMol.GetMorganFingerprintAsBitVect(mol, radius=2, nBits=2048)\\n\",\n    \"\\n\",\n    \"# output is in rdkit ExplicitBitVect format \\n\",\n    \"print(fp)\\n\",\n    \"# output can be converted to list simply using list()\\n\",\n    \"print(list(fp))\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"metadata\": {\n    \"scrolled\": true\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"<rdkit.DataStructs.cDataStructs.ExplicitBitVect object at 0x7fce3213aee0>\\n\",\n      \"[0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"from rdkit import Chem\\n\",\n    \"from rdkit.Chem import AllChem\\n\",\n    \"\\n\",\n    \"mol = Chem.MolFromSmiles('CC(=O)Oc1ccccc1C(=O)O')\\n\",\n    \"fp = AllChem.GetMorganFingerprintAsBitVect(mol, radius=2, nBits=2048)\\n\",\n    \"\\n\",\n    \"# output is in rdkit ExplicitBitVect format \\n\",\n    \"print(fp)\\n\",\n    \"# output can be converted to list simply using list()\\n\",\n    \"print(list(fp))\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"RDKitをベースにしたXenonPyでECFPを計算する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"   ecfp4:0  ecfp4:1  ecfp4:2  ecfp4:3  ecfp4:4  ecfp4:5  ecfp4:6  ecfp4:7  \\\\\\n\",\n      \"0        0        0        0        0        0        0        0        0   \\n\",\n      \"\\n\",\n      \"   ecfp4:8  ecfp4:9  ...  ecfp4:2038  ecfp4:2039  ecfp4:2040  ecfp4:2041  \\\\\\n\",\n      \"0        0        0  ...           0           0           0           0   \\n\",\n      \"\\n\",\n      \"   ecfp4:2042  ecfp4:2043  ecfp4:2044  ecfp4:2045  ecfp4:2046  ecfp4:2047  \\n\",\n      \"0           0           0           0           0           0           0  \\n\",\n      \"\\n\",\n      \"[1 rows x 2048 columns]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import ECFP\\n\",\n    \"\\n\",\n    \"# set up the function for fingerprint calculation (allow SMILES input directly and return fingerprints as a DataFrame)\\n\",\n    \"fp_fcn = ECFP(radius=2, n_bits=2048, input_type='smiles', return_type='df')\\n\",\n    \"\\n\",\n    \"# xenonpy assumes a list-like input\\n\",\n    \"smis_list = ['CC(=O)Oc1ccccc1C(=O)O']\\n\",\n    \"\\n\",\n    \"# calculate fingerprint\\n\",\n    \"fp = fp_fcn.transform(smis_list)\\n\",\n    \"print(fp)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 演習5）演習4の各ビットの部分構造を取り出し，化学構造を描画せよ．\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"非ゼロビットの情報を用意する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 13,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Num. of non-zero bits: 24\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"from rdkit import Chem\\n\",\n    \"from rdkit.Chem import AllChem\\n\",\n    \"from rdkit.Chem.Draw import DrawMorganBits\\n\",\n    \"\\n\",\n    \"mol = Chem.MolFromSmiles('CC(=O)Oc1ccccc1C(=O)O')\\n\",\n    \"\\n\",\n    \"# prepare empty dictionary to store bit info\\n\",\n    \"bit_dict = {}\\n\",\n    \"\\n\",\n    \"# calculate ECFP with bit info stored\\n\",\n    \"fp = AllChem.GetMorganFingerprintAsBitVect(mol, radius=2, nBits=2048, bitInfo=bit_dict)\\n\",\n    \"# prepare tuples for plotting\\n\",\n    \"fp_tuples = [(mol, bit, bit_dict) for bit in list(bit_dict.keys())]\\n\",\n    \"\\n\",\n    \"# check number of non-zero bits\\n\",\n    \"print(f'Num. of non-zero bits: {len(bit_dict)}')\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<PIL.PngImagePlugin.PngImageFile image mode=RGB size=900x600 at 0x7FCE109FE790>\"\n      ]\n     },\n     \"execution_count\": 14,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# draw all non-zero bits\\n\",\n    \"label_list = list(map(str, list(bit_dict.keys()))) # convert int to str\\n\",\n    \"DrawMorganBits(fp_tuples, molsPerRow=6, legends=label_list)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"フィンガープリントを固定長に折り返さない場合、実際には25個の非ゼロビットがある。すなわち、ビット衝突があったことがわかる。\\n\",\n    \"\\n\",\n    \"下の図と上の図を比較すると、下のビット番号864662311が上から欠落していることが分かる。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Num. of non-zero bits: 25\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<PIL.PngImagePlugin.PngImageFile image mode=RGB size=750x750 at 0x7FCE40750910>\"\n      ]\n     },\n     \"execution_count\": 15,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# prepare empty dictionary to store bit info\\n\",\n    \"bit_dict = {}\\n\",\n    \"\\n\",\n    \"# calculate ECFP with bit info stored\\n\",\n    \"fp = AllChem.GetMorganFingerprint(mol, radius=2, bitInfo=bit_dict)\\n\",\n    \"# prepare tuples for plotting\\n\",\n    \"fp_tuples = [(mol, bit, bit_dict) for bit in list(bit_dict.keys())]\\n\",\n    \"\\n\",\n    \"# check number of non-zero bits\\n\",\n    \"print(f'Num. of non-zero bits: {len(bit_dict)}')\\n\",\n    \"\\n\",\n    \"# draw all non-zero bits\\n\",\n    \"label_list = list(map(str, list(bit_dict.keys()))) # convert int to str\\n\",\n    \"DrawMorganBits(fp_tuples, molsPerRow=5, legends=label_list)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"864662311を2048で割った余りを確認すると、長さを2048に固定した場合の807ビット目でビット衝突が起きていることがわかる。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Bit collision at 807\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# check reminder\\n\",\n    \"bit_collide = 864662311 % 2048\\n\",\n    \"print(f'Bit collision at {bit_collide}')\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"source\": [\n    \"### 演習6）カウント型のECFPフィンガープリントとアトムペアフィンガープリントを計算し，それぞれのベクトルの数値を可視化せよ．\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"XenonPyのカウント型ECFPを使用すると、807ビット目が1より大きいカウントを持つビットの一つであることが確認できる。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 17,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"All bits with greater than 1 counts and the corresponding values:\\n\",\n      \"{'ecfp4_c:650': 2, 'ecfp4_c:807': 3, 'ecfp4_c:1088': 2, 'ecfp4_c:1199': 2, 'ecfp4_c:1380': 2, 'ecfp4_c:1750': 2, 'ecfp4_c:1873': 4, 'ecfp4_c:1917': 2}\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import ECFP\\n\",\n    \"\\n\",\n    \"fp_fcn = ECFP(radius=2, n_bits=2048, input_type='smiles', return_type='df', counting=True)\\n\",\n    \"smis_list = ['CC(=O)Oc1ccccc1C(=O)O']\\n\",\n    \"fp = fp_fcn.transform(smis_list)\\n\",\n    \"\\n\",\n    \"# check ECFP bits that has counting greater than 1\\n\",\n    \"bit_idx = fp.columns[(fp > 1).values.flatten()].values\\n\",\n    \"bit_val = fp[bit_idx].values.flatten()\\n\",\n    \"print('All bits with greater than 1 counts and the corresponding values:')\\n\",\n    \"print(dict(zip(bit_idx, bit_val)))\\n\",\n    \"      \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"分子内の各ビットの部分構造を強調表示する。\\n\",\n    \"\\n\",\n    \"[実行に数分かかる。解像度を(200, 200)に下げると計算負荷が軽減される（テキストのフォントサイズもそれに合わせて小さくする必要がある）]\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 1min 57s, sys: 4.51 s, total: 2min 1s\\n\",\n      \"Wall time: 2min 2s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"dir_save = 'output/演習6'\\n\",\n    \"os.makedirs(dir_save, exist_ok=True)\\n\",\n    \"\\n\",\n    \"# note that max. count = 4\\n\",\n    \"n_Row, n_Col = 1, 4\\n\",\n    \"n_S = n_Col*n_Row\\n\",\n    \"\\n\",\n    \"mol = Chem.MolFromSmiles('CC(=O)Oc1ccccc1C(=O)O')\\n\",\n    \"bit_dict = {}\\n\",\n    \"fp = AllChem.GetMorganFingerprintAsBitVect(mol, radius=2, nBits=2048, bitInfo=bit_dict)\\n\",\n    \"\\n\",\n    \"# set colors for highlights\\n\",\n    \"atomColors = (0.6, 0.6, 0.9)\\n\",\n    \"bondColors = (0.9, 0.9, 0.2)\\n\",\n    \"\\n\",\n    \"# loop over all non-zero bits\\n\",\n    \"for key, val in bit_dict.items():\\n\",\n    \"    fig, ax = plt.subplots(n_Row, n_Col)\\n\",\n    \"    _ = fig.set_size_inches(30, 30)\\n\",\n    \"    _ = fig.set_tight_layout(True)\\n\",\n    \"    \\n\",\n    \"    # loop over each count of a non-zero bit\\n\",\n    \"    for col, idx in enumerate(val):\\n\",\n    \"        center = mol.GetAtomWithIdx(idx[0]).GetSymbol()\\n\",\n    \"        radius = idx[1]\\n\",\n    \"        \\n\",\n    \"        # extract substructure bonds\\n\",\n    \"        env = Chem.FindAtomEnvironmentOfRadiusN(mol, radius+1, idx[0])\\n\",\n    \"        sub_bonds = [mol.GetBondWithIdx(b).GetIdx() for b in env]\\n\",\n    \"        # extract substructure atoms\\n\",\n    \"        if radius > 0:\\n\",\n    \"            env = Chem.FindAtomEnvironmentOfRadiusN(mol, radius, idx[0])\\n\",\n    \"            amap = {}\\n\",\n    \"            submol = Chem.PathToSubmol(mol, env, atomMap=amap)\\n\",\n    \"            sub_atoms = list(amap.keys())\\n\",\n    \"        else:\\n\",\n    \"            sub_atoms = [idx[0]]\\n\",\n    \"            \\n\",\n    \"        # plot molecule with highlighted substructure\\n\",\n    \"        try:\\n\",\n    \"            img = Draw.MolToImage(mol, highlightAtoms=sub_atoms, highlightBonds=sub_bonds, size=(500, 500))\\n\",\n    \"            _ = ax[col].clear()\\n\",\n    \"            _ = ax[col].set_frame_on(False)\\n\",\n    \"            _ = ax[col].imshow(img)\\n\",\n    \"            _ = ax[col].text(1,10,f'Center atom: {center} (radius = {radius})', fontsize=32)\\n\",\n    \"        except:\\n\",\n    \"            pass\\n\",\n    \"        _ = ax[col].set_axis_off()\\n\",\n    \"        \\n\",\n    \"    # make blank spaces\\n\",\n    \"    for j in range(col, n_Col):\\n\",\n    \"        _ = ax[j].set_axis_off()\\n\",\n    \"        \\n\",\n    \"    # save figure\\n\",\n    \"    _ = fig.savefig(f'{dir_save}/bit_{key}.png',dpi = 500)\\n\",\n    \"    _ = plt.close()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 演習7）分子動力学シミュレーションのサンプルデータを用いて，モノマー構造のECFPフィンガープリント記述子から熱伝導率を予測するモデルを構築せよ．ここでは，ランダムフォレスト回帰とニューラルネットワークを用いる．また，訓練データの数やフィンガープリントの種類等を変更し，予測精度の変化を調べて解析結果をまとめよ．\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"物性データとECFPを作成する\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 19,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"dir_file = 'data/Book_data_MD.csv'\\n\",\n    \"data = pd.read_csv(dir_file)\\n\",\n    \"\\n\",\n    \"# extract column vector from DataFrame (cannot be row vector because of the scikit-learn update)\\n\",\n    \"y_all = data['thermal_conductivity'].to_frame()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 20,\n   \"metadata\": {\n    \"scrolled\": true\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"     ecfp6:0  ecfp6:1  ecfp6:2  ecfp6:3  ecfp6:4  ecfp6:5  ecfp6:6  ecfp6:7  \\\\\\n\",\n      \"0          0        1        0        0        0        0        0        0   \\n\",\n      \"1          0        1        0        0        0        0        0        0   \\n\",\n      \"2          0        1        0        0        0        0        0        0   \\n\",\n      \"3          0        1        0        0        0        0        0        0   \\n\",\n      \"4          0        0        0        0        0        0        0        0   \\n\",\n      \"..       ...      ...      ...      ...      ...      ...      ...      ...   \\n\",\n      \"295        0        1        0        0        0        0        0        0   \\n\",\n      \"296        0        1        0        0        0        0        0        0   \\n\",\n      \"297        1        1        0        0        0        0        0        0   \\n\",\n      \"298        0        1        0        0        0        0        0        0   \\n\",\n      \"299        0        0        0        0        0        0        0        0   \\n\",\n      \"\\n\",\n      \"     ecfp6:8  ecfp6:9  ...  ecfp6:2038  ecfp6:2039  ecfp6:2040  ecfp6:2041  \\\\\\n\",\n      \"0          0        0  ...           0           0           0           0   \\n\",\n      \"1          0        0  ...           0           0           0           0   \\n\",\n      \"2          0        0  ...           0           0           0           0   \\n\",\n      \"3          0        0  ...           0           0           0           0   \\n\",\n      \"4          1        0  ...           0           0           0           0   \\n\",\n      \"..       ...      ...  ...         ...         ...         ...         ...   \\n\",\n      \"295        0        0  ...           0           0           0           0   \\n\",\n      \"296        0        0  ...           0           0           0           0   \\n\",\n      \"297        0        0  ...           0           0           0           0   \\n\",\n      \"298        0        0  ...           0           0           0           0   \\n\",\n      \"299        0        0  ...           0           0           0           0   \\n\",\n      \"\\n\",\n      \"     ecfp6:2042  ecfp6:2043  ecfp6:2044  ecfp6:2045  ecfp6:2046  ecfp6:2047  \\n\",\n      \"0             0           0           0           0           0           0  \\n\",\n      \"1             0           0           0           0           0           0  \\n\",\n      \"2             0           0           0           0           0           0  \\n\",\n      \"3             0           0           0           0           0           0  \\n\",\n      \"4             0           0           0           0           0           0  \\n\",\n      \"..          ...         ...         ...         ...         ...         ...  \\n\",\n      \"295           0           0           0           0           0           0  \\n\",\n      \"296           0           0           0           0           0           0  \\n\",\n      \"297           0           0           0           0           0           0  \\n\",\n      \"298           0           0           0           0           0           0  \\n\",\n      \"299           0           0           0           0           0           0  \\n\",\n      \"\\n\",\n      \"[300 rows x 2048 columns]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import ECFP\\n\",\n    \"\\n\",\n    \"fp_fcn = ECFP(radius=3, n_bits=2048, input_type='smiles', return_type='df')\\n\",\n    \"x_all = fp_fcn.transform(data['SMILES'])\\n\",\n    \"\\n\",\n    \"print(x_all)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"scikit-learn splitter をベースとした XenonPy datatools を用いて、学習用とテスト用のデータを分割する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 21,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.datatools import Splitter\\n\",\n    \"\\n\",\n    \"# fixing random seed for reproducibility\\n\",\n    \"random_seed = 202202\\n\",\n    \"\\n\",\n    \"# split data into training (all) and test\\n\",\n    \"sp_test = Splitter(len(y_all), test_size=0.2, random_state=random_seed)\\n\",\n    \"x_train, x_test, y_train, y_test = sp_test.split(x_all, y_all)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"XenonPy datatools を用いて、より良いモデル学習のために学習データに基づいたデータスケールを行います。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 22,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.datatools import Scaler\\n\",\n    \"\\n\",\n    \"# set scaler parameters using training data only\\n\",\n    \"y_scaler = Scaler().standard()\\n\",\n    \"y_train_s = y_scaler.fit_transform(y_train)\\n\",\n    \"\\n\",\n    \"# scale test data\\n\",\n    \"y_test_s = y_scaler.transform(y_test)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"ランダムフォレストモデルをハイパーパラメータチューニングで学習（グリッドサーチ）\\n\",\n    \"\\n\",\n    \"[実行に1分程度かかる。］\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 23,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Best parameter: {'max_features': 1434, 'n_estimators': 200}\\n\",\n      \"CPU times: user 30.2 s, sys: 210 ms, total: 30.4 s\\n\",\n      \"Wall time: 31.6 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"from sklearn.ensemble import RandomForestRegressor as RFR \\n\",\n    \"from sklearn.model_selection import GridSearchCV\\n\",\n    \"\\n\",\n    \"# hyperparameter grids\\n\",\n    \"n_tree = [50, 100, 200]\\n\",\n    \"max_feat_r = [0.1, 0.3, 0.5, 0.7]\\n\",\n    \"max_feat = np.round([x*x_train.shape[1] for x in max_feat_r]).astype(int)\\n\",\n    \"\\n\",\n    \"parameters = {'n_estimators': n_tree, 'max_features': max_feat}\\n\",\n    \"mdl = GridSearchCV(RFR(), parameters, scoring='neg_mean_squared_error')\\n\",\n    \"mdl.fit(x_train, y_train_s.values.flatten()) # requires 1D vector for model training\\n\",\n    \"\\n\",\n    \"best_param = mdl.best_params_\\n\",\n    \"print('Best parameter: {}'.format(best_param))\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"予測結果のプロット用関数を用意する\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 24,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import matplotlib.pyplot as plt\\n\",\n    \"\\n\",\n    \"# x-axis: observation data, y-axis: prediction\\n\",\n    \"def plot_prediction(x_tr, y_tr, x_te, y_te):\\n\",\n    \"    xy_min = min(np.concatenate([x_tr, x_te, y_tr, y_te]))\\n\",\n    \"    xy_max = max(np.concatenate([x_tr, x_te, y_tr, y_te]))\\n\",\n    \"    xy_del = xy_max - xy_min\\n\",\n    \"    \\n\",\n    \"    _ = plt.figure(figsize=(5,5))\\n\",\n    \"    _ = plt.scatter(x_tr, y_tr, s=20, c='b', alpha=0.15, label='Training')\\n\",\n    \"    _ = plt.scatter(x_te, y_te, s=20, c='r', alpha=0.3, label='Test')\\n\",\n    \"    _ = plt.rc('xtick',labelsize=14)\\n\",\n    \"    _ = plt.rc('ytick',labelsize=14)\\n\",\n    \"    _ = plt.ylabel('Prediction', fontsize=14)\\n\",\n    \"    _ = plt.xlabel('Observation', fontsize=14)\\n\",\n    \"    _ = plt.legend(fontsize=14)\\n\",\n    \"    _ = plt.plot([xy_min,xy_max],[xy_min,xy_max],ls=\\\"--\\\",c='k')\\n\",\n    \"    _ = plt.show()\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"元のデータスケールで予測精度を確認する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 25,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training RMSE: 0.007982426275714978\\n\",\n      \"Test RMSE: 0.02704726628593462\\n\",\n      \"Training R2: 0.9434579478604491\\n\",\n      \"Test R2: 0.47219685225382524\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 360x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"from sklearn.metrics import r2_score, mean_squared_error\\n\",\n    \"\\n\",\n    \"# make predictions for training and test data\\n\",\n    \"prd_train = y_scaler.inverse_transform(mdl.predict(x_train).reshape(-1, 1)).flatten()\\n\",\n    \"prd_test = y_scaler.inverse_transform(mdl.predict(x_test).reshape(-1, 1)).flatten()\\n\",\n    \"\\n\",\n    \"# get performance statistics\\n\",\n    \"RMSE_train = np.sqrt(mean_squared_error(prd_train, y_train.values.flatten()))\\n\",\n    \"R2_train = r2_score(prd_train, y_train.values.flatten())\\n\",\n    \"RMSE_test = np.sqrt(mean_squared_error(prd_test, y_test.values.flatten()))\\n\",\n    \"R2_test = r2_score(prd_test, y_test.values.flatten())\\n\",\n    \"print('Training RMSE: {}'.format(RMSE_train))\\n\",\n    \"print('Test RMSE: {}'.format(RMSE_test))\\n\",\n    \"print('Training R2: {}'.format(R2_train))\\n\",\n    \"print('Test R2: {}'.format(R2_test))\\n\",\n    \"\\n\",\n    \"# make plot\\n\",\n    \"plot_prediction(y_train.values.flatten(), prd_train, y_test.values.flatten(), prd_test)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"ハイパーパラメータチューニングによるニューラルネットワークモデルのトレーニング（グリッドサーチ - デモ用に少数の候補モデルでXenonPyショットガンアプローチを使用します。）\\n\",\n    \"\\n\",\n    \"最適化パッケージ（例えばOptuna）は、ニューラルネットワークのハイパーパラメータチューニングに適していますが、トレーニングに長い時間がかかることに注意してください。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 26,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import numpy as np\\n\",\n    \"from datetime import datetime\\n\",\n    \"from collections import OrderedDict\\n\",\n    \"\\n\",\n    \"from xenonpy.datatools import Splitter\\n\",\n    \"\\n\",\n    \"import torch\\n\",\n    \"import torch.nn as nn\\n\",\n    \"from torch.utils.data import DataLoader\\n\",\n    \"from xenonpy.utils import ParameterGenerator\\n\",\n    \"from xenonpy.model import SequentialLinear\\n\",\n    \"from xenonpy.model.training import Trainer, Checker, Adam, MSELoss\\n\",\n    \"from xenonpy.model.training.dataset import ArrayDataset\\n\",\n    \"from xenonpy.model.training.extension import TensorConverter, Validator, Persist\\n\",\n    \"from xenonpy.model.utils import regression_metrics\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 27,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# basic user parameters for training\\n\",\n    \"cuda = 'cpu' # train with cpu (can use gpu instead if available)\\n\",\n    \"epochs = 1000 # max number of training cycles\\n\",\n    \"n_layers = (2, 3, 4) # list of random number of layers\\n\",\n    \"n_models = 10 # total number of candidate models to train\\n\",\n    \"working_dir = 'output/演習7/NN_mdls' # directory to save models\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 28,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# split training data into actual training and validation sets\\n\",\n    \"random_seed = 202202\\n\",\n    \"sp_val = Splitter(len(y_train_s), test_size=0.2, random_state=random_seed)\\n\",\n    \"x_tr, x_val, y_tr, y_val = sp_val.split(x_train, y_train_s)\\n\",\n    \"\\n\",\n    \"# prepare data for training neural networks\\n\",\n    \"train_dataset = DataLoader(ArrayDataset(x_tr, y_tr), shuffle=True, batch_size=len(y_tr))\\n\",\n    \"val_dataset = DataLoader(ArrayDataset(x_val, y_val), batch_size=len(y_val)) \\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 29,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"Trainer(cuda=device(type='cpu'), loss_func=MSELoss(), non_blocking=True)\"\n      ]\n     },\n     \"execution_count\": 29,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# Prepare generator of neural network structure (use a pyramid shape structure of fully connected layers with random number of neurons)\\n\",\n    \"generator = ParameterGenerator(\\n\",\n    \"    in_features=x_tr.shape[1],\\n\",\n    \"    out_features=1,\\n\",\n    \"    h_neurons=dict(\\n\",\n    \"        data=lambda n: sorted(np.random.uniform(0.2, 0.8, size=n), reverse=True), \\n\",\n    \"        repeat=n_layers\\n\",\n    \"    ),\\n\",\n    \"    h_dropouts=0.1,\\n\",\n    \"    h_activation_funcs=(nn.LeakyReLU(),)\\n\",\n    \")\\n\",\n    \"\\n\",\n    \"# Prepare trainer to train neural network automatically\\n\",\n    \"trainer = Trainer(\\n\",\n    \"    optimizer=Adam(lr=0.01),\\n\",\n    \"    loss_func=MSELoss(),\\n\",\n    \"    cuda=cuda,\\n\",\n    \"    non_blocking=True\\n\",\n    \")\\n\",\n    \"trainer.extend(\\n\",\n    \"    TensorConverter(empty_cache=True),\\n\",\n    \"    Validator(metrics_func=regression_metrics, early_stopping=50, trace_order=1, pearsonr=1.0, mse=0.0, r2=1.0, mae=0.0),\\n\",\n    \")\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"[実行に数分かかる。]\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 30,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"a4f145b926074765b95748888bf3f614\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/1000 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 51 iterations, finish training at iteration 431\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"b4b6805397b94e3586a762cd3ebf858d\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/1000 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 51 iterations, finish training at iteration 328\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"641d6c8ccf5546488c895b9466bb40cc\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/1000 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 51 iterations, finish training at iteration 109\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"3ee5470de67e41b1bf9d20d20efe73fd\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/1000 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 51 iterations, finish training at iteration 90\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"c04800b4371b4bb1a4a7f04376e2a6dc\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/1000 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 51 iterations, finish training at iteration 169\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"f3aa5ee7261a447b9059e8b036400e83\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/1000 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 51 iterations, finish training at iteration 109\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"4ed5ac097f6f4e7391c967a9459f1b5a\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/1000 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 51 iterations, finish training at iteration 100\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"9a302d215b45495990011c37af22ace9\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/1000 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 51 iterations, finish training at iteration 237\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"97d8673ae47c4473a851caef24a76bf9\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/1000 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 51 iterations, finish training at iteration 105\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"31ebeb4ad90c40dfbd8860a87f6d95d6\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/1000 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 51 iterations, finish training at iteration 85\\n\",\n      \"CPU times: user 6min 59s, sys: 1min 5s, total: 8min 4s\\n\",\n      \"Wall time: 3min 55s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"np.random.seed(202202)\\n\",\n    \"\\n\",\n    \"summary = [] # for saving training statistics\\n\",\n    \"\\n\",\n    \"# train multiple candidate models\\n\",\n    \"for idx, (paras, model) in enumerate(generator(n_models, factory=SequentialLinear)):\\n\",\n    \"    # prepare information for track record\\n\",\n    \"    model_name = f'model_{idx}'\\n\",\n    \"    persist = Persist(\\n\",\n    \"        f'{working_dir}/{model_name}', \\n\",\n    \"        # -^- required -^-\\n\",\n    \"\\n\",\n    \"        # -v- optional -v-\\n\",\n    \"        increment=False, \\n\",\n    \"        sync_training_step=True,\\n\",\n    \"        model_class=SequentialLinear,\\n\",\n    \"        model_params=paras,\\n\",\n    \"    )\\n\",\n    \"    _ = trainer.extend(persist)\\n\",\n    \"    trainer.reset(to=model)\\n\",\n    \"\\n\",\n    \"    # init training env\\n\",\n    \"    training_env = {\\n\",\n    \"        \\\"start\\\": datetime.utcnow().strftime('%Y/%m/%d %H:%M:%S.%f')[:-7],\\n\",\n    \"        \\\"finish\\\": \\\"\\\",\\n\",\n    \"        \\\"device\\\": cuda,\\n\",\n    \"    }\\n\",\n    \"\\n\",\n    \"    # training\\n\",\n    \"    trainer.fit(training_dataset=train_dataset, validation_dataset=val_dataset, epochs=epochs)\\n\",\n    \"\\n\",\n    \"    # update finish time\\n\",\n    \"    training_env['finish'] = datetime.utcnow().strftime('%Y/%m/%d %H:%M:%S.%f')[:-7]\\n\",\n    \"\\n\",\n    \"    # save additional info\\n\",\n    \"    persist(training_indices=x_tr.index.tolist(), validation_indices=x_val.index.tolist(), \\n\",\n    \"            training_env=training_env, desc_names=x_tr.columns.values)  # <-- calling of this method only after the model training\\n\",\n    \"    training_info = trainer.training_info\\n\",\n    \"\\n\",\n    \"    # record statistics\\n\",\n    \"    summary.append(OrderedDict(\\n\",\n    \"        id=model_name,\\n\",\n    \"        mae=training_info['val_mae'].min(),\\n\",\n    \"        mse=training_info['val_mse'].min(),\\n\",\n    \"        r2=training_info['val_r2'].max(),\\n\",\n    \"        corr=training_info['val_pearsonr'].max(),\\n\",\n    \"        training_env=training_env\\n\",\n    \"    ))\\n\",\n    \"    pd.DataFrame(summary).to_csv(f'{working_dir}/training_summary.csv')\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"検証データに基づくモデルの選択とテストデータの予測精度を確認する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 31,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Best model is model_9 (based on lowest validation MSE)\\n\",\n      \"Training RMSE: 0.016698431296504283\\n\",\n      \"Validation RMSE: 0.020745860143996805\\n\",\n      \"Test RMSE: 0.02744662806373825\\n\",\n      \"Training R2: 0.8559066757096379\\n\",\n      \"Validation R2: 0.6088969708568563\\n\",\n      \"Test R2: 0.45241855738248726\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 360x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"summary_train = pd.read_csv(f'{working_dir}/training_summary.csv', index_col=0)\\n\",\n    \"idx_mdl = summary_train['id'].loc[summary_train['mse'].idxmin()]\\n\",\n    \"print(f'Best model is {idx_mdl} (based on lowest validation MSE)')\\n\",\n    \"\\n\",\n    \"# load model\\n\",\n    \"trainer = Trainer.from_checker(Checker(f'{working_dir}/{idx_mdl}'))\\n\",\n    \"trainer.reset(to='mse') # use best mse model checkpoint\\n\",\n    \"    \\n\",\n    \"# make predictions for training and test data and convert back to original scale\\n\",\n    \"prd_tr = y_scaler.inverse_transform(trainer.predict(x_in=torch.tensor(x_tr.values, dtype=torch.float)).detach().numpy()).flatten()\\n\",\n    \"prd_val = y_scaler.inverse_transform(trainer.predict(x_in=torch.tensor(x_val.values, dtype=torch.float)).detach().numpy()).flatten()\\n\",\n    \"prd_test = y_scaler.inverse_transform(trainer.predict(x_in=torch.tensor(x_test.values, dtype=torch.float)).detach().numpy()).flatten()\\n\",\n    \"\\n\",\n    \"# get performance statistics\\n\",\n    \"y_tr_norm = y_train.loc[y_tr.index].values.flatten()\\n\",\n    \"y_val_norm = y_train.loc[y_val.index].values.flatten()\\n\",\n    \"RMSE_train = np.sqrt(mean_squared_error(prd_tr, y_tr_norm))\\n\",\n    \"R2_train = r2_score(prd_tr, y_tr_norm)\\n\",\n    \"RMSE_val = np.sqrt(mean_squared_error(prd_val, y_val_norm))\\n\",\n    \"R2_val = r2_score(prd_val, y_val_norm)\\n\",\n    \"RMSE_test = np.sqrt(mean_squared_error(prd_test, y_test.values.flatten()))\\n\",\n    \"R2_test = r2_score(prd_test, y_test.values.flatten())\\n\",\n    \"print('Training RMSE: {}'.format(RMSE_train))\\n\",\n    \"print('Validation RMSE: {}'.format(RMSE_val))\\n\",\n    \"print('Test RMSE: {}'.format(RMSE_test))\\n\",\n    \"print('Training R2: {}'.format(R2_train))\\n\",\n    \"print('Validation R2: {}'.format(R2_val))\\n\",\n    \"print('Test R2: {}'.format(R2_test))\\n\",\n    \"\\n\",\n    \"# make plot\\n\",\n    \"plot_prediction(y_tr_norm, prd_tr, y_test.values.flatten(), prd_test)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"異なるフィンガープリントを用意する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 32,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 1.2 s, sys: 76.5 ms, total: 1.28 s\\n\",\n      \"Wall time: 1.5 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"from xenonpy.descriptor import ECFP, AtomPairFP\\n\",\n    \"\\n\",\n    \"x_dict = {}\\n\",\n    \"\\n\",\n    \"# ECFP - binary, radius 1\\n\",\n    \"fp_fcn = ECFP(radius=1, n_bits=2048, input_type='smiles', return_type='df')\\n\",\n    \"x_dict['ECFP2_b'] = fp_fcn.transform(data['SMILES'])\\n\",\n    \"\\n\",\n    \"# ECFP - binary, radius 3\\n\",\n    \"fp_fcn = ECFP(radius=3, n_bits=2048, input_type='smiles', return_type='df')\\n\",\n    \"x_dict['ECFP6_b'] = fp_fcn.transform(data['SMILES'])\\n\",\n    \"\\n\",\n    \"# ECFP - counting, radius 3\\n\",\n    \"fp_fcn = ECFP(radius=3, n_bits=2048, input_type='smiles', return_type='df', counting=True)\\n\",\n    \"x_dict['ECFP6_c'] = fp_fcn.transform(data['SMILES'])\\n\",\n    \"\\n\",\n    \"# AtomPairFP - binary\\n\",\n    \"fp_fcn = AtomPairFP(n_bits=2048, input_type='smiles', return_type='df')\\n\",\n    \"x_dict['APFP_b'] = fp_fcn.transform(data['SMILES'])\\n\",\n    \"\\n\",\n    \"# AtomPairFP - counting\\n\",\n    \"fp_fcn = AtomPairFP(n_bits=2048, input_type='smiles', return_type='df', counting = True)\\n\",\n    \"x_dict['APFP_c'] = fp_fcn.transform(data['SMILES'])\\n\",\n    \"\\n\",\n    \"# MACCS - binary\\n\",\n    \"fp_fcn = AtomPairFP(input_type='smiles', return_type='df')\\n\",\n    \"x_dict['MACCS_b'] = fp_fcn.transform(data['SMILES'])\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"異なる数の学習データを用意する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 33,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"N_ratio = np.array([0.3, 0.5, 0.8, 1])\\n\",\n    \"N_dat = np.round(N_ratio*len(y_train)).astype(int)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"異なるフィンガープリントと異なる数の学習データでランダムフォレストを再訓練し、予測精度を確認する。\\n\",\n    \"\\n\",\n    \"[実行に10分以上かかる]\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 34,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 7min 13s, sys: 2.86 s, total: 7min 16s\\n\",\n      \"Wall time: 7min 17s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# prepare to save statistics of prediction performance\\n\",\n    \"RMSE_RF_train = pd.DataFrame(index=N_dat, columns=x_dict.keys())\\n\",\n    \"RMSE_RF_test = pd.DataFrame(index=N_dat, columns=x_dict.keys())\\n\",\n    \"R2_RF_train = pd.DataFrame(index=N_dat, columns=x_dict.keys())\\n\",\n    \"R2_RF_test = pd.DataFrame(index=N_dat, columns=x_dict.keys())\\n\",\n    \"\\n\",\n    \"# hyperparameter grids\\n\",\n    \"n_tree = [50, 100, 200]\\n\",\n    \"max_feat_r = [0.1, 0.3, 0.5, 0.7]\\n\",\n    \"\\n\",\n    \"dir_out = 'output/演習7/RF_performance'\\n\",\n    \"os.makedirs(dir_out, exist_ok=True)\\n\",\n    \"\\n\",\n    \"# loop over different fingerprints\\n\",\n    \"for fp, x_all in x_dict.items():\\n\",\n    \"    x_train_all, x_test, y_train_all, y_test = sp_test.split(x_all, y_all)\\n\",\n    \"\\n\",\n    \"    # loop over different number of training data\\n\",\n    \"    for idx_t in N_dat:\\n\",\n    \"        x_train = x_train_all.iloc[:idx_t, :]\\n\",\n    \"        y_train = y_train_all.iloc[:idx_t, :]\\n\",\n    \"        \\n\",\n    \"        # set scaler parameters using training data only\\n\",\n    \"        y_scaler = Scaler().standard()\\n\",\n    \"        y_train_s = y_scaler.fit_transform(y_train)\\n\",\n    \"        y_test_s = y_scaler.transform(y_test)\\n\",\n    \"        \\n\",\n    \"        # train model with hyperparameter tuning\\n\",\n    \"        max_feat = np.round([x*x_train.shape[1] for x in max_feat_r]).astype(int)\\n\",\n    \"        parameters = {'n_estimators': n_tree, 'max_features': max_feat}\\n\",\n    \"        mdl = GridSearchCV(RFR(), parameters, scoring='neg_mean_squared_error')\\n\",\n    \"        mdl.fit(x_train, y_train_s.values.flatten()) # requires 1D vector for model training\\n\",\n    \"\\n\",\n    \"        prd_train = y_scaler.inverse_transform(mdl.predict(x_train).reshape(-1,1)).flatten()\\n\",\n    \"        prd_test = y_scaler.inverse_transform(mdl.predict(x_test).reshape(-1,1)).flatten()\\n\",\n    \"\\n\",\n    \"        # get performance statistics\\n\",\n    \"        RMSE_RF_train.loc[idx_t, fp] = np.sqrt(mean_squared_error(prd_train, y_train.values.flatten()))\\n\",\n    \"        R2_RF_train.loc[idx_t, fp] = r2_score(prd_train, y_train.values.flatten())\\n\",\n    \"        RMSE_RF_test.loc[idx_t, fp] = np.sqrt(mean_squared_error(prd_test, y_test.values.flatten()))\\n\",\n    \"        R2_RF_test.loc[idx_t, fp] = r2_score(prd_test, y_test.values.flatten())\\n\",\n    \"        \\n\",\n    \"# save the performance results\\n\",\n    \"RMSE_RF_train.to_csv(f'{dir_out}/RMSE_train.csv')\\n\",\n    \"RMSE_RF_test.to_csv(f'{dir_out}/RMSE_test.csv')\\n\",\n    \"R2_RF_train.to_csv(f'{dir_out}/R2_train.csv')\\n\",\n    \"R2_RF_test.to_csv(f'{dir_out}/R2_test.csv')\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"同様の計算をニューラルネットワークモデルに対して再度行うことができる。一般に、フィンガープリントの種類や訓練データの数に関係なく、訓練データに対する性能は常に良好であることが分かる。しかしながら、より多くの訓練データがあれば、一般的にテストデータの予測精度の向上が期待される。さらに、カウント型のフィンガープリントは、バイナリ型のフィンガープリントより多くの情報が含まれるので、より優れた予測性能を可能にする。\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 演習8）ポリエチレン*CCC(=O)O*の単量体，二量体，三量体のSMILES文字列を生成し．ECFP記述子を計算せよ（B=2048,R=2）．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 35,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import numpy as np\\n\",\n    \"import rdkit \\n\",\n    \"from rdkit import Chem\\n\",\n    \"from rdkit.Chem import AllChem, Draw\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"複数のモノマーを接続する機能を用意する（この機能ではリングを持つモノマーは扱えない）\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 36,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def polymer_chain(smi, num,max_iter=100):\\n\",\n    \"    mol = Chem.MolFromSmiles(smi)\\n\",\n    \"    \\n\",\n    \"    for _ in range(max_iter):\\n\",\n    \"        rnd = np.random.randint(0, mol.GetNumAtoms())\\n\",\n    \"        rsmi = Chem.MolToSmiles(mol, rootedAtAtom=rnd)\\n\",\n    \"        if  rsmi[0] == \\\"*\\\":\\n\",\n    \"            smi = rsmi\\n\",\n    \"            break\\n\",\n    \"            \\n\",\n    \"    for _ in range(num):\\n\",\n    \"        smi = \\\"*\\\" + smi[1:].replace(\\\"*\\\", rsmi[1:])\\n\",\n    \"            \\n\",\n    \"    return smi\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"さまざまなSMILESのECFPを計算する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 37,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Num. of non-zero bits: [16, 22, 22]\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<IPython.core.display.Image object>\"\n      ]\n     },\n     \"execution_count\": 37,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"smi = '*CCC(=O)O*'\\n\",\n    \"mols = []\\n\",\n    \"fps = []\\n\",\n    \"bit_dicts = []\\n\",\n    \"for n in range(3):\\n\",\n    \"    s = polymer_chain(smi, n)\\n\",\n    \"    mols.append(Chem.MolFromSmiles(s))\\n\",\n    \"    bit_dicts.append({})\\n\",\n    \"    fps.append(AllChem.GetMorganFingerprintAsBitVect(mols[-1], radius=2, nBits=2048, useFeatures=False, bitInfo=bit_dicts[-1]))\\n\",\n    \"    \\n\",\n    \"print(f'Num. of non-zero bits: {[len(x) for x in bit_dicts]}')\\n\",\n    \"Draw.MolsToGridImage(mols, molsPerRow=3, subImgSize=(500,500))\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 演習9）演習8の各ビットの部分構造を描画し，比較せよ．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 38,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Mer\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<PIL.PngImagePlugin.PngImageFile image mode=RGB size=900x450 at 0x7FCE41627B20>\"\n      ]\n     },\n     \"execution_count\": 38,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from rdkit.Chem.Draw import DrawMorganBits\\n\",\n    \"\\n\",\n    \"mol = mols[0]\\n\",\n    \"bit_dict = bit_dicts[0]\\n\",\n    \"fp_tuples = [(mol, bit, bit_dict) for bit in list(bit_dict.keys())]\\n\",\n    \"label_list = list(map(str, list(bit_dict.keys()))) # convert int to str\\n\",\n    \"\\n\",\n    \"print('Mer')\\n\",\n    \"DrawMorganBits(fp_tuples, molsPerRow=6, legends=label_list)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 39,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Dimer\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<PIL.PngImagePlugin.PngImageFile image mode=RGB size=900x600 at 0x7FCE00DA6CD0>\"\n      ]\n     },\n     \"execution_count\": 39,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"mol = mols[1]\\n\",\n    \"bit_dict = bit_dicts[1]\\n\",\n    \"fp_tuples = [(mol, bit, bit_dict) for bit in list(bit_dict.keys())]\\n\",\n    \"label_list = list(map(str, list(bit_dict.keys()))) # convert int to str\\n\",\n    \"\\n\",\n    \"print('Dimer')\\n\",\n    \"DrawMorganBits(fp_tuples, molsPerRow=6, legends=label_list)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 40,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Trimer\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<PIL.PngImagePlugin.PngImageFile image mode=RGB size=900x600 at 0x7FCDA003D790>\"\n      ]\n     },\n     \"execution_count\": 40,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"mol = mols[2]\\n\",\n    \"bit_dict = bit_dicts[2]\\n\",\n    \"fp_tuples = [(mol, bit, bit_dict) for bit in list(bit_dict.keys())]\\n\",\n    \"label_list = list(map(str, list(bit_dict.keys()))) # convert int to str\\n\",\n    \"\\n\",\n    \"print('Trimer')\\n\",\n    \"DrawMorganBits(fp_tuples, molsPerRow=6, legends=label_list)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 演習10）サンプルデータの10化合物のRDKitの2次元記述子とmordredの2次元記述子を計算せよ．\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 41,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import pandas as pd\\n\",\n    \"\\n\",\n    \"# set file directory\\n\",\n    \"dir_file = 'data/Book_data_MD.csv'\\n\",\n    \"# load csv data using pandas DataFrame\\n\",\n    \"data = pd.read_csv(dir_file)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"注意：モノマーSMILESに'*'を付けて使用すると、一部の物理記述子の計算に失敗することがある。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 42,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"Index(['MaxPartialCharge', 'MinPartialCharge', 'MaxAbsPartialCharge',\\n\",\n       \"       'MinAbsPartialCharge', 'BCUT2D_MWHI', 'BCUT2D_MWLOW', 'BCUT2D_CHGHI',\\n\",\n       \"       'BCUT2D_CHGLO', 'BCUT2D_LOGPHI', 'BCUT2D_LOGPLOW', 'BCUT2D_MRHI',\\n\",\n       \"       'BCUT2D_MRLOW'],\\n\",\n       \"      dtype='object')\"\n      ]\n     },\n     \"execution_count\": 42,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import DescriptorFeature\\n\",\n    \"\\n\",\n    \"fp_fcn = DescriptorFeature(input_type='smiles', return_type='df', add_Hs=True)\\n\",\n    \"fp_rdkit = fp_fcn.transform(data['SMILES'])\\n\",\n    \"\\n\",\n    \"# descriptors with NA values\\n\",\n    \"fp_rdkit.columns[fp_rdkit.isna().sum() > 0]\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"注意：MordredはXenonPyのインストール時にデフォルトでインストールされるパッケージではない可能性があるので、自分でインストールするようにしてください。その後、我々のコントリビューターによって書かれたモジュール（非公式モジュール）を使用して、直接2Dディスクリプタを計算することができる。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 43,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"  4%|█▌                                        | 11/300 [00:02<00:56,  5.11it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/numpy/core/fromnumeric.py:86: RuntimeWarning: overflow encountered in reduce\\n\",\n      \"  return ufunc.reduce(obj, axis, dtype, out, **passkwargs)\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \" 13%|█████▍                                    | 39/300 [00:03<00:11, 22.46it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/numpy/core/fromnumeric.py:86: RuntimeWarning: overflow encountered in reduce\\n\",\n      \"  return ufunc.reduce(obj, axis, dtype, out, **passkwargs)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/numpy/core/fromnumeric.py:86: RuntimeWarning: overflow encountered in reduce\\n\",\n      \"  return ufunc.reduce(obj, axis, dtype, out, **passkwargs)\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \" 37%|███████████████▏                         | 111/300 [00:05<00:06, 30.57it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/numpy/core/fromnumeric.py:86: RuntimeWarning: overflow encountered in reduce\\n\",\n      \"  return ufunc.reduce(obj, axis, dtype, out, **passkwargs)\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \" 47%|███████████████████▍                     | 142/300 [00:05<00:04, 37.90it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/numpy/core/fromnumeric.py:86: RuntimeWarning: overflow encountered in reduce\\n\",\n      \"  return ufunc.reduce(obj, axis, dtype, out, **passkwargs)\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \" 73%|█████████████████████████████▉           | 219/300 [00:07<00:01, 42.75it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/numpy/core/fromnumeric.py:86: RuntimeWarning: overflow encountered in reduce\\n\",\n      \"  return ufunc.reduce(obj, axis, dtype, out, **passkwargs)\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \" 90%|████████████████████████████████████▊    | 269/300 [00:09<00:00, 34.53it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/numpy/core/fromnumeric.py:86: RuntimeWarning: overflow encountered in reduce\\n\",\n      \"  return ufunc.reduce(obj, axis, dtype, out, **passkwargs)\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"100%|█████████████████████████████████████████| 300/300 [00:09<00:00, 31.70it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/numpy/core/fromnumeric.py:86: RuntimeWarning: overflow encountered in reduce\\n\",\n      \"  return ufunc.reduce(obj, axis, dtype, out, **passkwargs)\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.contrib.extend_descriptors.descriptor import Mordred2DDescriptor\\n\",\n    \"\\n\",\n    \"fp_fcn = Mordred2DDescriptor(return_type='df')\\n\",\n    \"fp_mordred = fp_fcn.transform(data['SMILES'])\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"iMacHome_xepy38_working\",\n   \"language\": \"python\",\n   \"name\": \"imachome_xepy38_working\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.8.12\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "mi_book/exercise_20.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# 演習20: サンプルコードを実行し，エピガロカテキン(Epigallocatechingallate)に変異・挿入・欠失・伸長の操作を施し，生成される化学構造を可視化せよ.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"ライブラリーの読み込み\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from rdkit import Chem, DataStructs\\n\",\n    \"from rdkit.Chem import Draw\\n\",\n    \"import numpy as np\\n\",\n    \"import random\\n\",\n    \"import re\\n\",\n    \"import math\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### PointMutation\\n\",\n    \"\\n\",\n    \"点変異を発生させるメソッド\\n\",\n    \"\\n\",\n    \"#### input\\n\",\n    \"- __smi__: str  \\n\",\n    \"　　対象のSMILES\\n\",\n    \"- __max_iter__: int  \\n\",\n    \"　　最大試行回数（デフォルト100回）。\\n\",\n    \"- __weightr__: list(int)  \\n\",\n    \"　　原子を選択する場合の重み。\\n\",\n    \"- __atm_list__: list(int)  \\n\",\n    \"　　選択されうる原子番号。\\n\",\n    \"- __seed__: int  \\n\",\n    \"　　乱数(-1の場合は固定しない(デフォルト))。\\n\",\n    \"\\n\",\n    \"  \\n\",\n    \"#### output\\n\",\n    \"- __fsmi__: str  \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def PointMutation(smi, max_iter=100, weight=[1, 1, 1,1], atm_list=[6,7,8,16], seed=-1):\\n\",\n    \"    smiles = smi\\n\",\n    \"\\n\",\n    \"    if (smiles is np.nan) or (smiles is None):\\n\",\n    \"        return None\\n\",\n    \"    if len(weight) != len(atm_list) :\\n\",\n    \"        return None\\n\",\n    \"\\n\",\n    \"    if seed == -1:\\n\",\n    \"        pass\\n\",\n    \"    else:\\n\",\n    \"        random.seed(seed)\\n\",\n    \"        \\n\",\n    \"    for i in range(max_iter):\\n\",\n    \"        w=weight.copy()\\n\",\n    \"\\n\",\n    \"        mol = Chem.MolFromSmiles(smiles)\\n\",\n    \"        pos = mol.GetNumAtoms() - 1\\n\",\n    \"        idx = random.randint(0,pos)\\n\",\n    \"        \\n\",\n    \"        an = mol.GetAtomWithIdx(idx).GetAtomicNum()\\n\",\n    \"        w[atm_list.index(an)] = 0\\n\",\n    \"        \\n\",\n    \"        chg_atm = random.choices(atm_list, k=1, weights=w)\\n\",\n    \"        mol.GetAtomWithIdx(idx).SetAtomicNum(chg_atm[0])\\n\",\n    \"        \\n\",\n    \"        try:\\n\",\n    \"            Chem.SanitizeMol(mol)\\n\",\n    \"        except:\\n\",\n    \"            continue\\n\",\n    \"        break\\n\",\n    \"\\n\",\n    \"    if mol is not None:\\n\",\n    \"        fsmi = Chem.MolToSmiles(mol)\\n\",\n    \"        return fsmi\\n\",\n    \"    else:\\n\",\n    \"        return None\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Insert\\n\",\n    \"\\n\",\n    \"挿入\\n\",\n    \"\\n\",\n    \"#### input\\n\",\n    \"- __smi__: str  \\n\",\n    \"　　対象のSMILES\\n\",\n    \"- __max_iter__: int  \\n\",\n    \"　　最大試行回数（デフォルト100回）。\\n\",\n    \"- __weightr__: list(int)  \\n\",\n    \"　　原子を選択する場合の重み。\\n\",\n    \"- __atm_list__: list(str)  \\n\",\n    \"　　選択されうる原子のSMILES記法。\\n\",\n    \"- __add_halogen__: list(str)  \\n\",\n    \"　　ハロゲンを選択肢に加える(デフォルトはFalse)。\\n\",\n    \"- __eff_ring__: list(str)  \\n\",\n    \"　　環状構造へ積極的に挿入する(デフォルトはFalse)。\\n\",\n    \"- __seed__: int  \\n\",\n    \"　　乱数(-1の場合は固定しない(デフォルト))。\\n\",\n    \"  \\n\",\n    \"#### output\\n\",\n    \"- __fsmi__: str  \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def Insert(smi, max_iter=100, weight=[1, 1, 1,1], a_list=['C','N','O','S'], add_halogen=False, eff_ring=False, seed=-1):\\n\",\n    \"    smiles = smi\\n\",\n    \"    w=weight.copy()\\n\",\n    \"    atm_list = a_list.copy()\\n\",\n    \"    \\n\",\n    \"    if (smiles is np.nan) or (smiles is None):\\n\",\n    \"        return None\\n\",\n    \"    \\n\",\n    \"    if seed == -1:\\n\",\n    \"        pass\\n\",\n    \"    else:\\n\",\n    \"        random.seed(seed)\\n\",\n    \"    \\n\",\n    \"    if add_halogen is True:\\n\",\n    \"        atm_list.extend(['F', 'Cl', 'Br'])\\n\",\n    \"        w.extend([1, 1, 1])\\n\",\n    \"        \\n\",\n    \"    if len(w) != len(atm_list) :\\n\",\n    \"        return None\\n\",\n    \"    \\n\",\n    \"    for j in range(max_iter): \\n\",\n    \"        mol = Chem.MolFromSmiles(smiles)\\n\",\n    \"        Chem.Kekulize(mol)\\n\",\n    \"        pos = mol.GetNumAtoms() - 1\\n\",\n    \"        idx = random.randint(0,pos)\\n\",\n    \"        nsmi = Chem.MolToSmiles(mol,rootedAtAtom=idx)\\n\",\n    \"\\n\",\n    \"        ins_pos = random.randint(0,len(nsmi)-1)\\n\",\n    \"        ins_atm = random.choices(atm_list, k=1, weights=w)\\n\",\n    \"        \\n\",\n    \"        if eff_ring is False:\\n\",\n    \"            rsmi = ins_atm[0]+nsmi\\n\",\n    \"        else:\\n\",\n    \"            rsmi = nsmi[:ins_pos]+ins_atm[0]+ nsmi[ins_pos:]\\n\",\n    \"        \\n\",\n    \"        print(pos, idx, ins_pos, ins_atm)\\n\",\n    \"        \\n\",\n    \"        mol_rsmi = Chem.MolFromSmiles(rsmi)\\n\",\n    \"        \\n\",\n    \"        try:\\n\",\n    \"            Chem.SanitizeMol(mol_rsmi)\\n\",\n    \"        except:\\n\",\n    \"            continue\\n\",\n    \"        break\\n\",\n    \"\\n\",\n    \"    if mol_rsmi is not None:\\n\",\n    \"        fsmi = Chem.MolToSmiles(mol_rsmi)\\n\",\n    \"        return fsmi\\n\",\n    \"    else:\\n\",\n    \"        return None\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Deletion\\n\",\n    \"\\n\",\n    \"欠損\\n\",\n    \"\\n\",\n    \"#### input\\n\",\n    \"- __smi__: str  \\n\",\n    \"　　対象のSMILES\\n\",\n    \"- __max_iter__: int  \\n\",\n    \"　　最大試行回数（デフォルト100回）。\\n\",\n    \"- __eff_ring__: list(str)  \\n\",\n    \"　　環状構造へ積極的に挿入する(デフォルトはFalse)。\\n\",\n    \"- __seed__: int  \\n\",\n    \"　　乱数(-1の場合は固定しない(デフォルト))。\\n\",\n    \"  \\n\",\n    \"#### output\\n\",\n    \"- __fsmi__: str  \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def Deletion(smi, max_iter=100, eff_ring=False, seed=-1):\\n\",\n    \"    smiles = smi\\n\",\n    \"\\n\",\n    \"    if (smiles is np.nan) or (smiles is None):\\n\",\n    \"        return None\\n\",\n    \"        \\n\",\n    \"    if seed == -1:\\n\",\n    \"        random.seed()\\n\",\n    \"    else:\\n\",\n    \"        random.seed(seed)\\n\",\n    \"        \\n\",\n    \"    for j in range(max_iter): \\n\",\n    \"        mol = Chem.MolFromSmiles(smiles)\\n\",\n    \"        pos = mol.GetNumAtoms() - 1\\n\",\n    \"        if pos < 0:\\n\",\n    \"            pos = 0\\n\",\n    \"        idx = random.randint(0,pos)\\n\",\n    \"        nsmi = Chem.MolToSmiles(mol,rootedAtAtom=idx)\\n\",\n    \"\\n\",\n    \"        if eff_ring is False:\\n\",\n    \"            rsmi = nsmi[1:]\\n\",\n    \"        else:\\n\",\n    \"            del_pos = random.randint(0,len(nsmi)-1)\\n\",\n    \"            rsmi = nsmi[:del_pos]+nsmi[del_pos+1:]\\n\",\n    \"        \\n\",\n    \"        mol_rsmi = Chem.MolFromSmiles(rsmi)\\n\",\n    \"        \\n\",\n    \"        try:\\n\",\n    \"            Chem.SanitizeMol(mol_rsmi)\\n\",\n    \"        except:\\n\",\n    \"            continue\\n\",\n    \"        break\\n\",\n    \"\\n\",\n    \"    if mol_rsmi is not None:\\n\",\n    \"        fsmi = Chem.MolToSmiles(mol_rsmi)\\n\",\n    \"        return fsmi\\n\",\n    \"    else:\\n\",\n    \"        return None\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Duplication\\n\",\n    \"\\n\",\n    \"重複\\n\",\n    \"\\n\",\n    \"#### input\\n\",\n    \"- __smi__: str  \\n\",\n    \"　　対象のSMILES\\n\",\n    \"- __max_iter__: int  \\n\",\n    \"　　最大試行回数（デフォルト100回）。\\n\",\n    \"- __eff_ring__: list(str)  \\n\",\n    \"　　環状構造へ積極的に挿入する(デフォルトはFalse)。\\n\",\n    \"- __seed__: int  \\n\",\n    \"　　乱数(-1の場合は固定しない(デフォルト))。\\n\",\n    \"  \\n\",\n    \"#### output\\n\",\n    \"- __fsmi__: str  \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def Duplication(smi, max_iter=100, eff_ring=False, seed=-1):\\n\",\n    \"    smiles = smi\\n\",\n    \"    \\n\",\n    \"    if (smiles is np.nan) or (smiles is None):\\n\",\n    \"        return None\\n\",\n    \"        \\n\",\n    \"    if seed == -1:\\n\",\n    \"        random.seed()\\n\",\n    \"    else:\\n\",\n    \"        random.seed(seed)\\n\",\n    \"    \\n\",\n    \"    for j in range(max_iter): \\n\",\n    \"        fsmi_list = []\\n\",\n    \"        mol = Chem.MolFromSmiles(smiles)\\n\",\n    \"        idx = random.randint(0,(mol.GetNumAtoms()-1))\\n\",\n    \"        nsmi = Chem.MolToSmiles(mol,rootedAtAtom=idx)\\n\",\n    \"\\n\",\n    \"        if eff_ring is False:\\n\",\n    \"            rsmi = nsmi[0] + nsmi\\n\",\n    \"        else:\\n\",\n    \"            dup_pos = random.randint(0,len(nsmi)-1)\\n\",\n    \"            rsmi = nsmi[:dup_pos]+nsmi[dup_pos-1:]\\n\",\n    \"          \\n\",\n    \"        mol_rsmi = Chem.MolFromSmiles(rsmi)\\n\",\n    \"        \\n\",\n    \"        try:\\n\",\n    \"            Chem.SanitizeMol(mol_rsmi)\\n\",\n    \"        except:\\n\",\n    \"            continue\\n\",\n    \"        break\\n\",\n    \"\\n\",\n    \"    if mol_rsmi is not None:\\n\",\n    \"        fsmi = Chem.MolToSmiles(mol_rsmi)\\n\",\n    \"        return fsmi\\n\",\n    \"    else:\\n\",\n    \"        return None\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 13,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit ERROR: [17:47:35] Can't kekulize mol.  Unkekulized atoms: 24 26 28 30 32\\n\",\n      \"[17:47:35] Can't kekulize mol.  Unkekulized atoms: 24 26 28 30 32\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [17:47:35] Can't kekulize mol.  Unkekulized atoms: 5 6 18 19 21\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[17:47:35] Can't kekulize mol.  Unkekulized atoms: 5 6 18 19 21\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [17:47:35] Can't kekulize mol.  Unkekulized atoms: 9 10 13 15 17\\n\",\n      \"[17:47:35] Can't kekulize mol.  Unkekulized atoms: 9 10 13 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [17:47:35] Can't kekulize mol.  Unkekulized atoms: 24 25 26 28 30\\n\",\n      \"[17:47:35] Can't kekulize mol.  Unkekulized atoms: 24 25 26 28 30\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [17:47:35] Can't kekulize mol.  Unkekulized atoms: 25 26 28 30 32\\n\",\n      \"[17:47:35] Can't kekulize mol.  Unkekulized atoms: 25 26 28 30 32\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [17:47:35] Explicit valence for atom # 1 N, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [17:47:35] Explicit valence for atom # 1 N, 4, is greater than permitted\\n\",\n      \"[17:47:35] Explicit valence for atom # 1 N, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [17:47:35] Can't kekulize mol.  Unkekulized atoms: 6 18 19 21 22\\n\",\n      \"[17:47:35] Explicit valence for atom # 1 N, 4, is greater than permitted\\n\",\n      \"[17:47:35] Can't kekulize mol.  Unkekulized atoms: 6 18 19 21 22\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [17:47:35] Can't kekulize mol.  Unkekulized atoms: 24 25 28 30 32\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[17:47:35] Can't kekulize mol.  Unkekulized atoms: 24 25 28 30 32\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [17:47:35] Can't kekulize mol.  Unkekulized atoms: 9 10 11 13 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[17:47:35] Can't kekulize mol.  Unkekulized atoms: 9 10 11 13 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [17:47:35] Can't kekulize mol.  Unkekulized atoms: 5 6 18 21 22\\n\",\n      \"[17:47:35] Can't kekulize mol.  Unkekulized atoms: 5 6 18 21 22\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [17:47:35] Can't kekulize mol.  Unkekulized atoms: 5 6 18 19 22\\n\",\n      \"[17:47:35] Can't kekulize mol.  Unkekulized atoms: 5 6 18 19 22\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [17:47:35] Can't kekulize mol.  Unkekulized atoms: 9 10 11 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [17:47:35] Can't kekulize mol.  Unkekulized atoms: 9 10 11 13 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [17:47:35] Can't kekulize mol.  Unkekulized atoms: 24 25 26 30 32\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [17:47:35] Can't kekulize mol.  Unkekulized atoms: 6 18 19 21 22\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[17:47:35] Can't kekulize mol.  Unkekulized atoms: 9 10 11 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [17:47:35] Can't kekulize mol.  Unkekulized atoms: 5 6 19 21 22\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[17:47:35] Can't kekulize mol.  Unkekulized atoms: 9 10 11 13 17\\n\",\n      \"\\n\",\n      \"[17:47:35] Can't kekulize mol.  Unkekulized atoms: 24 25 26 30 32\\n\",\n      \"\\n\",\n      \"[17:47:35] Can't kekulize mol.  Unkekulized atoms: 6 18 19 21 22\\n\",\n      \"\\n\",\n      \"[17:47:35] Can't kekulize mol.  Unkekulized atoms: 5 6 19 21 22\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [17:47:35] Can't kekulize mol.  Unkekulized atoms: 5 6 18 19 21\\n\",\n      \"[17:47:35] Can't kekulize mol.  Unkekulized atoms: 5 6 18 19 21\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"if __name__ == '__main__':\\n\",\n    \"    smi = \\\"O=C(O[C@@H]2Cc3c(O[C@@H]2c1cc(O)c(O)c(O)c1)cc(O)cc3O)c4cc(O)c(O)c(O)c4\\\"\\n\",\n    \"    mols = []\\n\",\n    \"    smiles = []\\n\",\n    \"    for i in range(50):\\n\",\n    \"        rsmi = PointMutation(smi)\\n\",\n    \"        #rsmi = Insert(smi)\\n\",\n    \"        #rsmi = Deletion(smi)\\n\",\n    \"        #rsmi = Duplication(smi)\\n\",\n    \"        \\n\",\n    \"        smiles.append(rsmi)\\n\",\n    \"\\n\",\n    \"    # 重複構造の削除\\n\",\n    \"    smiles_list = list(set(smiles))    \\n\",\n    \"    \\n\",\n    \"    for smi in smiles_list:\\n\",\n    \"        mols.append(Chem.MolFromSmiles(smi))\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<PIL.PngImagePlugin.PngImageFile image mode=RGB size=2500x3000 at 0x7FC0A8BB5910>\"\n      ]\n     },\n     \"execution_count\": 14,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"Draw.MolsToGridImage(mols,molsPerRow=5,subImgSize=(500,500))\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3 (ipykernel)\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.9\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 2\n}\n"
  },
  {
    "path": "mi_book/exercise_21.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"source\": [\n    \"### 演習21）サンプルコードを実行し，フラグメントの確率的な組み換えを行い，所望のHOMO（highest occupied molecular orbital），LUMO（lowest unoccupied molecular orbital）を有する分子（有機薄膜太陽電池のドナー分子）を生成せよ．計算のフローについては，Algorithm3を参照せよ．\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### フラグメント組み換えによる仮想ライブラリの作製\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"ライブラリーの読み込み\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import pandas as pd\\n\",\n    \"import matplotlib.pyplot as plt\\n\",\n    \"import numpy as np\\n\",\n    \"import random\\n\",\n    \"import rdkit\\n\",\n    \"from rdkit import Chem\\n\",\n    \"from rdkit.Chem import Draw\\n\",\n    \"from xenonpy.descriptor import Fingerprints\\n\",\n    \"from sklearn.ensemble import RandomForestRegressor as RF\\n\",\n    \"from xenonpy.inverse.iqspr import NGram\\n\",\n    \"from rdkit.Chem.EnumerateHeterocycles import EnumerateHeterocycles\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"フラグメントを結合させる関数、以下のプログラムの一部改変\\n\",\n    \"\\n\",\n    \"https://github.com/yoshida-lab/XenonPy/blob/master/xenonpy/contrib/sample_codes/combine_fragments/combine_fragments.py\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def GetCombSmiles(frag_base):\\n\",\n    \"    smis_frag = frag_base[0]\\n\",\n    \"    smis_base = frag_base[1]\\n\",\n    \"    ngram = NGram()\\n\",\n    \"\\n\",\n    \"    # check position of '*'\\n\",\n    \"    mols_base = Chem.MolFromSmiles(smis_base)\\n\",\n    \"    if mols_base is None:\\n\",\n    \"        raise RuntimeError('Invalid base SMILES!')\\n\",\n    \"    idx_base = [i for i in range(mols_base.GetNumAtoms()) if mols_base.GetAtomWithIdx(i).GetSymbol() == '*']\\n\",\n    \"    \\n\",\n    \"    # rearrange base SMILES to avoid 1st char = '*' (assume no '**')\\n\",\n    \"    if len(idx_base) == 1 and idx_base[0] == 0:\\n\",\n    \"        smis_base_head = Chem.MolToSmiles(mols_base,rootedAtAtom=1)\\n\",\n    \"    elif len(idx_base) == 0:\\n\",\n    \"        smis_base_head = smis_base + '*'\\n\",\n    \"    else:\\n\",\n    \"        smis_base_head = smis_base\\n\",\n    \"\\n\",\n    \"    # converge base to ext. SMILES and pick insertion location\\n\",\n    \"    esmi_base = ngram.smi2esmi(smis_base_head)\\n\",\n    \"    esmi_base = esmi_base[:-1]\\n\",\n    \"    idx_base = esmi_base.index[(esmi_base['esmi'] == '*') | (esmi_base['esmi'] == '[*]')].tolist()\\n\",\n    \"    if len(idx_base) == 0:\\n\",\n    \"        for w in ['-*' , '=*', '#*']:\\n\",\n    \"            idx_base = esmi_base.index[esmi_base['esmi'] == w].tolist()\\n\",\n    \"            if len(idx_base) > 0:\\n\",\n    \"                break\\n\",\n    \"    if idx_base[0] == 0:\\n\",\n    \"        if len(idx_base) == 1:\\n\",\n    \"            # put treatment here\\n\",\n    \"            raise RuntimeError('Probably -*, =*, and/or #* exist')\\n\",\n    \"        else:\\n\",\n    \"            idx_base = idx_base[1]\\n\",\n    \"    else:\\n\",\n    \"        idx_base = idx_base[0]\\n\",\n    \"\\n\",\n    \"    # rearrange fragment to have 1st char = '*' and convert to ext. SMILES\\n\",\n    \"    mols_frag = Chem.MolFromSmiles(smis_frag)\\n\",\n    \"    if mols_frag is None:\\n\",\n    \"        raise RuntimeError('Invalid frag SMILES!')\\n\",\n    \"    idx_frag = [i for i in range(mols_frag.GetNumAtoms()) if mols_frag.GetAtomWithIdx(i).GetSymbol() == '*']\\n\",\n    \"    if len(idx_frag) == 0: # if -*, =*, and/or #* exist, not counted as * right now\\n\",\n    \"        esmi_frag = ngram.smi2esmi(smis_frag)\\n\",\n    \"        # remove last '!'\\n\",\n    \"        esmi_frag = esmi_frag[:-1]\\n\",\n    \"    else:\\n\",\n    \"        esmi_frag = ngram.smi2esmi(Chem.MolToSmiles(mols_frag,rootedAtAtom=idx_frag[0]))\\n\",\n    \"        # remove leading '*' and last '!'\\n\",\n    \"        esmi_frag = esmi_frag[1:-1]\\n\",\n    \"\\n\",\n    \"    # check open rings of base SMILES\\n\",\n    \"    nRing_base = esmi_base['n_ring'].loc[idx_base]\\n\",\n    \"\\n\",\n    \"    # re-number rings in fragment SMILES\\n\",\n    \"    esmi_frag['n_ring'] = esmi_frag['n_ring'] + nRing_base\\n\",\n    \"\\n\",\n    \"    # delete '*' at the insertion location\\n\",\n    \"    esmi_base = esmi_base.drop(idx_base).reset_index(drop=True)\\n\",\n    \"\\n\",\n    \"    # combine base with the fragment\\n\",\n    \"    ext_smi = pd.concat([esmi_base.iloc[:idx_base], esmi_frag, esmi_base.iloc[idx_base:]]).reset_index(drop=True)\\n\",\n    \"    new_pd_row = {'esmi': '!', 'n_br': 0, 'n_ring': 0, 'substr': ['!']}\\n\",\n    \"    ext_smi.append(new_pd_row, ignore_index=True)\\n\",\n    \"\\n\",\n    \"    fin_smi = ngram.esmi2smi(ext_smi)\\n\",\n    \"    mol_fin = Chem.MolFromSmiles(fin_smi)\\n\",\n    \"    if mol_fin is not None:\\n\",\n    \"        can_sim_fin = Chem.MolToSmiles(mol_fin)\\n\",\n    \"    else:\\n\",\n    \"        can_sim_fin = None\\n\",\n    \"\\n\",\n    \"    return can_sim_fin\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"アスタリスクを結合させる関数、演習20のInsertの一部改変\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def ast_Insert(smi, max_iter=10):\\n\",\n    \"    smiles = smi\\n\",\n    \"\\n\",\n    \"    for j in range(max_iter):\\n\",\n    \"        mol = Chem.MolFromSmiles(smiles)\\n\",\n    \"        can = Chem.MolToSmiles(mol)\\n\",\n    \"        pos = mol.GetNumAtoms() - 1\\n\",\n    \"        if pos < 0:\\n\",\n    \"            pos = 0\\n\",\n    \"        idx = np.random.randint(0,pos)\\n\",\n    \"        nsmi = Chem.MolToSmiles(mol,rootedAtAtom=idx)\\n\",\n    \"\\n\",\n    \"        rsmi = '*' + nsmi\\n\",\n    \"\\n\",\n    \"        if '**' in rsmi:\\n\",\n    \"            continue\\n\",\n    \"\\n\",\n    \"        mol_rsmi = Chem.MolFromSmiles(rsmi)\\n\",\n    \"        if mol_rsmi is not None:\\n\",\n    \"            fsmi = Chem.MolToSmiles(mol_rsmi)\\n\",\n    \"            return fsmi\\n\",\n    \"\\n\",\n    \"    return smiles\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"フラグメントの種類の組み合わせに従って、フラグメントを等確率でピックアップする関数\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def creat_list(arr, list_list):\\n\",\n    \"    rarr = []\\n\",\n    \"    print(arr)\\n\",\n    \"    for i in range(len(arr)):\\n\",\n    \"        smi = np.random.choice(list_list[arr[i]])\\n\",\n    \"        rsmi = ast_Insert(smi)\\n\",\n    \"        rsmi = ast_Insert(rsmi)\\n\",\n    \"        rarr.append(rsmi)\\n\",\n    \"\\n\",\n    \"    return rarr\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 1: Lopez et al. (2016) を参考に 7 個の構造を選定.\\n\",\n    \"\\n\",\n    \"EnumerateHeterocyclesでの生成数を増やすために一部元素を置換しています。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"smiles_list = []\\n\",\n    \"smiles_list.append('c1ccccc1')\\n\",\n    \"smiles_list.append('C1=CC=CN1')\\n\",\n    \"smiles_list.append('C2=CC1=C(C=CC(=C1C=C2))')\\n\",\n    \"smiles_list.append('C1(=C2C(=C(S1))C=CO2)')\\n\",\n    \"smiles_list.append('C2=C(C1=CNC=C1C(=C2))')\\n\",\n    \"smiles_list.append('C1=CC=C3C(=C1)C2=CC=CC=C2C4=C(NC(=C34))')\\n\",\n    \"smiles_list.append('C23=C(C=C1C(=C(C(=C(C1=C2)))))C=CC=C3')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 2: 初期の7個からランダムに 2-5 個を選択し 100 個の組み合わせを作成する.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 13,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"arr_list = []\\n\",\n    \"for i in range(100):\\n\",\n    \"    arr_list.append(np.random.choice(len(smiles_list), np.random.randint(2,6)))\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 3: RDKit の rdkit.Chem.EnumerateHeterocycles というモジュールを用いて 7 個の構造に対して原子置換を施し 計5030 個のフラグメント集合を生成する.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"fragment_list = []\\n\",\n    \"for smi in smiles_list:\\n\",\n    \"    this = []\\n\",\n    \"    for smi_f in sorted(Chem.MolToSmiles(m) for m in EnumerateHeterocycles(Chem.MolFromSmiles(smi))):\\n\",\n    \"        this.append(smi_f)\\n\",\n    \"\\n\",\n    \"    fragment_list.append(this)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 4: 結合点を表すアスタリスク”*” をランダムに 2 個挿入し，各組のフラグメント同士を結合させ第 1 世代の 100 個の構造を生成する.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {\n    \"collapsed\": true,\n    \"jupyter\": {\n     \"outputs_hidden\": true\n    },\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"[1 0 0]\\n\",\n      \"[0 6 1]\\n\",\n      \"[3 4]\\n\",\n      \"[5 2 2 0 2]\\n\",\n      \"[4 2]\\n\",\n      \"[5 2 0 5 0]\\n\",\n      \"[2 0 2]\\n\",\n      \"[1 3 0 0 5]\\n\",\n      \"[2 5 0 1]\\n\",\n      \"[6 1]\\n\",\n      \"[0 4]\\n\",\n      \"[4 3 5 6]\\n\",\n      \"[0 1 2 3]\\n\",\n      \"[4 5 1 2]\\n\",\n      \"[2 2 1 5]\\n\",\n      \"[3 3 0 3 2]\\n\",\n      \"[0 6 4 0 3]\\n\",\n      \"[0 1]\\n\",\n      \"[5 0 4 4 0]\\n\",\n      \"[5 3 0 5]\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 6\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 6\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 6\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"\\n\",\n      \"[5 4 6]\\n\",\n      \"[5 4]\\n\",\n      \"[5 1 5 2]\\n\",\n      \"[3 3 1]\\n\",\n      \"[1 6 1 3 1]\\n\",\n      \"[3 3 2]\\n\",\n      \"[6 5 1 4]\\n\",\n      \"[0 3 2 1 3]\\n\",\n      \"[5 4 0 0 6]\\n\",\n      \"[3 5 0]\\n\",\n      \"[6 3 1 5 2]\\n\",\n      \"[0 2]\\n\",\n      \"[3 2 0]\\n\",\n      \"[6 5 2 3 2]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 6 8 9\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 6\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:24:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"[0 0 0 0]\\n\",\n      \"[2 1 0]\\n\",\n      \"[5 1 6 3]\\n\",\n      \"[3 5 0 1 3]\\n\",\n      \"[6 4 0 1 3]\\n\",\n      \"[1 3 1]\\n\",\n      \"[5 6 6 2]\\n\",\n      \"[2 4 2 6]\\n\",\n      \"[4 0 0 5 5]\\n\",\n      \"[6 6 4 2]\\n\",\n      \"[4 4 1 3 6]\\n\",\n      \"[1 2 6 5]\\n\",\n      \"[3 6 0 1]\\n\",\n      \"[5 3 6 3 4]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"[3 5 5 5]\\n\",\n      \"[2 5 4 0 0]\\n\",\n      \"[0 3 5 2]\\n\",\n      \"[0 3 3]\\n\",\n      \"[5 2 5 6]\\n\",\n      \"[4 4]\\n\",\n      \"[1 4]\\n\",\n      \"[6 4 0]\\n\",\n      \"[5 5 2 3 0]\\n\",\n      \"[5 2 3 5]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \" 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"ekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 7 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 9\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"[3 6 3 5 0]\\n\",\n      \"[4 5 2]\\n\",\n      \"[2 4 6]\\n\",\n      \"[0 0 2]\\n\",\n      \"[1 1 0 6 1]\\n\",\n      \"[2 3 4 6 3]\\n\",\n      \"[4 6 6]\\n\",\n      \"[4 3 5 1 2]\\n\",\n      \"[2 3 4]\\n\",\n      \"[6 3 4]\\n\",\n      \"[3 6 3 5 3]\\n\",\n      \"[1 6 1 6]\\n\",\n      \"[0 1 5 0]\\n\",\n      \"[0 0 5 0 0]\\n\",\n      \"[5 1 0 4 0]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:4RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"2] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekuRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"lize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"[6 5 4 4]\\n\",\n      \"[2 1 4 0]\\n\",\n      \"[0 4]\\n\",\n      \"[0 1]\\n\",\n      \"[1 3 3]\\n\",\n      \"[0 0]\\n\",\n      \"[1 2 5 4 4]\\n\",\n      \"[6 6]\\n\",\n      \"[4 5 4 4]\\n\",\n      \"[2 6]\\n\",\n      \"[3 0 6 5 4]\\n\",\n      \"[5 6 5]\\n\",\n      \"[1 0 3 0 1]\\n\",\n      \"[1 4 6 1 3]\\n\",\n      \"[0 4]\\n\",\n      \"[5 2 2]\\n\",\n      \"[5 5 1 6]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:24:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:24:43] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  URDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"nkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  URDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"nkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"[0 1 5 1]\\n\",\n      \"[6 1 3]\\n\",\n      \"[6 2 3]\\n\",\n      \"[1 4 1]\\n\",\n      \"[2 4]\\n\",\n      \"[3 4]\\n\",\n      \"[3 6]\\n\",\n      \"[6 0 5 5]\\n\",\n      \"[5 6 2]\\n\",\n      \"[6 6]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Explicit valence for atom # 7 C, 6, is greater than permitted\\n\",\n      \"[22:24:43] Explicit valence for atom # 7 C, 6, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 11 12 13 14 16\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 11 12 13 14 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 7 8 9 10 12\\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 7 8 9 10 12\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:43] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:24:43] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:24:44] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:24:44] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:44] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:24:44] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:44] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:24:44] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:24:44] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:24:44] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:24:44] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:24:44] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"recipe = []\\n\",\n    \"for arr in arr_list:\\n\",\n    \"    recipe.append(creat_list(arr, fragment_list))\\n\",\n    \"\\n\",\n    \"rsmi_list = []\\n\",\n    \"for resi in recipe:\\n\",\n    \"    rsmi = resi[0]\\n\",\n    \"    for i in range(1, len(resi)):\\n\",\n    \"        smiles = rsmi\\n\",\n    \"        rsmi = GetCombSmiles([rsmi, resi[i]])\\n\",\n    \"        if rsmi is None:\\n\",\n    \"            rsmi = smiles\\n\",\n    \"\\n\",\n    \"    rsmi = rsmi.replace('(*)','').replace('[*]','').replace('*','')\\n\",\n    \"\\n\",\n    \"    if rsmi is not None and Chem.MolFromSmiles(rsmi):\\n\",\n    \"        rsmi_list.append(rsmi)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 5: 構造・物性のデータ集合でランダムフォレストのモデルを構築し，HOMO と LUMO の予測モデル YH = fH(S), YL = fL(S) を作成する.\\n\",\n    \"\\n\",\n    \"データはあくまでも仮想分子の量子化学計算の結果を用いたサンプルデータです。\\n\",\n    \"CEPなど適切なデータセットを利用することを推奨します。\\n\",\n    \"また、本演習では予測精度の検討などは行なっておりません。\\n\",\n    \"これらは別の演習をご参照ください。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"RandomForestRegressor()\"\n      ]\n     },\n     \"execution_count\": 18,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"data = pd.read_csv('data/Sample_data.csv')\\n\",\n    \"\\n\",\n    \"FPs = Fingerprints(featurizers=['ECFP', 'MACCS'], input_type='smiles')\\n\",\n    \"tmp_FPs = FPs.transform(data['SMILES'])\\n\",\n    \"\\n\",\n    \"rg_HOMO = RF()\\n\",\n    \"rg_HOMO.fit(tmp_FPs,data['HOMO(eV)'])\\n\",\n    \"\\n\",\n    \"rg_LUMO = RF()\\n\",\n    \"rg_LUMO.fit(tmp_FPs,data['LUMO(eV)'])\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 6: HOMO と LUMO の目標値を HOMO = −5.5 eV, LUMO = −4.0 eV とする.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 19,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"target_HOMO = -5.5 \\n\",\n    \"target_LUMO = -4.0\\n\",\n    \"T = 50\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 7: fort∈{1,...,T}do 以降の処理\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 20,\n   \"metadata\": {\n    \"collapsed\": true,\n    \"jupyter\": {\n     \"outputs_hidden\": true\n    },\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 7 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 7 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \" 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atomRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"s: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \" 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:30:56] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:56] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:30:57] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:30:57] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8 9 10\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:30:57] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:30:57] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:30:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:30:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 7 8 10 19 20\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 7 8 10 19 20\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Explicit valence for atom # 7 C, 6, is greater than permitted\\n\",\n      \"[22:30:57] Explicit valence for atom # 7 C, 6, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 10 11 13 22 23\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 10 11 13 22 23\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 11 12 13 14 16\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 11 12 13 14 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 8 9 10 11 13\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 8 9 10 11 13\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 6 7 8 9 11\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 10 11 12 13 15\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:57] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:30:57] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:30:58] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:30:58] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 4 5 7 8 9\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \" 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize moRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"l.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \" 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] CRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"an't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:58] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms:RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \" 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:30:58] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"[22:30:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 9\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:59] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:30:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:30:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:59] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:30:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 6 8 9\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 2 3 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:30:59] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:30:59] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:30:59] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:30:59] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:00] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 7 C, 6, is greater than permitted\\n\",\n      \"[22:31:00] Explicit valence for atom # 7 C, 6, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:00] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  UnkekulizRDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"ed atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"[22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14RDKit ERROR: \\n\",\n      \"\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8 9 10\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"[22:31:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:01] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:01] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:01] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 9\\n\",\n      \"[22:31:01] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:01] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:01] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:01] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:01] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:01] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:01] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:01] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:01] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:01] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:01] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:01] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:01] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:01] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:01] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:01] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:01] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:01] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:01] Explicit valence for atom # 7 C, 6, is greater than permitted\\n\",\n      \"[22:31:01] Explicit valence for atom # 7 C, 6, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:02] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 8 10 16\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 8 10 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 14 16 22\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 14 16 22\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 6 8 14\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 6 8 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 8 10 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 8 10 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 14 16 22\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 14 16 22\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 6 8 14\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 6 8 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \" 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 1RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"4 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \" 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"8\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can'RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"t kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:03] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:03] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:03] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:04] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  UnRDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"kekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 7 8 9\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:04]RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \" Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:0RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 6\\n\",\n      \"4] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 6\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \":31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can'RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"t kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"oms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  UnkeRDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"kulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:04] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:04] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 9\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 9\\n\",\n      \"[22:31:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:05] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:05] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:06] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:06] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  UnkekuliRDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"zed atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"oms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4RDKit ERROR: \\n\",\n      \" 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"[22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:06] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:06] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"[22:31:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:07] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:07] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 1RDKit ERROR: \\n\",\n      \"3 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:08] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:08] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:08] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:08] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \" 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  UnkekRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"ulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 4 5 7 8 9\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 8 9\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:09] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:10] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:10] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:10] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:10] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 1RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"5 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:11] Can'RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"t kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 O, 4, is greater than permRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"itted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekRDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"ulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:11] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:1RDKit ERROR: \\n\",\n      \"3] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 14 15 16 17 18\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:13] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:13] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:14] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:14] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:14] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:14] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:14] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:14] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:14] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:14] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:14] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:14] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized aRDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"toms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 8 9\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14RDKit ERROR: [22:31:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \" 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  UnkekulRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"ized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms:RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \" 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \" 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:15] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:15] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:15] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:16] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 9\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekuRDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"lize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized aRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"toms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 RDKit ERROR: [22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"7\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 RDKit ERROR: [22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:17] Can't kekulize mol.RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:17] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 8 9\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:18] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:18] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:18] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:18] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:18] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:18] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:18] Explicit valence for atom # 7 N, 6, is greater than permitted\\n\",\n      \"[22:31:18] Explicit valence for atom # 7 N, 6, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:18] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:18] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:18] Explicit valence for atom # 7 N, 6, is greater than permitted\\n\",\n      \"[22:31:18] Explicit valence for atom # 7 N, 6, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:18] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:18] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:18] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:18] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:19] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:19] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:19] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:19] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:19] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:19] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:19] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:19] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:19] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:19] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:19] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:19] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:19] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:19] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:19] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"22:31:19] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:19] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:19] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atomsRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \": 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  UnkekulizedRDKit ERROR: \\n\",\n      \" atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"ize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:20] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:20] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:20] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:20] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:20] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 7 N, 6, is greater than permitted\\n\",\n      \"[22:31:20] Explicit valence for atom # 7 N, 6, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:20] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:20] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:21] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:21] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:21] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:21] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:21] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:21] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:21] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:21] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can'RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"t kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulizeRDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \" mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 1RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"3 14 15\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  UnkekulizeRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8 9 10\\n\",\n      \"d atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoRDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"ms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[2RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"2:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 9\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 6 8 9\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 6 8 9\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:22] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:24] Explicit valence for atom # 1 N, 5, is greatRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"er than permitted\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:24] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:24] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:24] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"[22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:24] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:24] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 8 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 8 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 7 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \" 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:3RDKit ERROR: [22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"1:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  UnkekulRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"ized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:29] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:29] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:29] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:29] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:29] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:29] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:29] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:29] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:29] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:29] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:29] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:29] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:29] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:29] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:29] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 8 9 11\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"[22:31:29] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:30] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"[22:31:30] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:30] Can't kekulize mol.  Unkekulized atoms: 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:30] Can't kekulize mol.  Unkekulized atoms: 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:30] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:30] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:30] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:30] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:30] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"[22:31:30] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:30] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:30] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:30] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"[22:31:30] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:30] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"[22:31:30] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:30] Can't kekulize mol.  Unkekulized atoms: 8 9 11\\n\",\n      \"[22:31:30] Can't kekulize mol.  Unkekulized atoms: 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:30] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:30] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:30] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:30] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:30] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"[22:31:30] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:30] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:30] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:30] Can't kekulize mol.  Unkekulized atoms: 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:30] Can't kekulize mol.  Unkekulized atoms: 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:30] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:30] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:30] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"[22:31:30] Can't kekulize mol.  Unkekulized atoms: 0 1 2\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  UnRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"kekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \" 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31RDKit ERROR: [22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 8 9\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 8 9\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:31] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:31] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:32] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"[22:31:32] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:32] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"[22:31:32] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:32] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"[22:31:32] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:32] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"[22:31:32] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:32] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"[22:31:32] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:32] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:32] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:32] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:32] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:32] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:32] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulRDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"ize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 1RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"0 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms:RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \" 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:33] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:33] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:34] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:34] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:34] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"[22:31:34] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:34] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:34] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:34] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:34] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:34] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"[22:31:34] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:34] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"[22:31:34] Can't kekulize mol.  Unkekulized atoms: 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:34] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"[22:31:34] Can't kekulize mol.  Unkekulized atoms: 13 14 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:34] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"[22:31:34] Can't kekulize mol.  Unkekulized atoms: 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \" 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  UnkekRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"ulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  UnkekulizRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"ed atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \" 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] CanRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"'t kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:35] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:35] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"[22:31:35] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:36] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"[22:31:36] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:36] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"[22:31:36] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:36] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"[22:31:36] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[2RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"2:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  UnkekuRDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"lized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:37] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:38] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:38] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:38] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:38] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:38] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:38] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:38] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:38] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:38] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:38] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:38] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:38] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:39] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:39] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:39] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:39] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:39] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:39] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:39] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:39] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:39] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:39] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:39] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:39] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:39] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:39] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"[22:31:40] Explicit valence for atom # 7 O, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 6\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can'tRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \" kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"[22:31:40] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:40] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \" 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 RDKit ERROR: [22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can'tRDKit ERROR: \\n\",\n      \" kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.RDKit ERROR: [22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  UnkekuRDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"lized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:31:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"[22:31:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 6\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:43] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:43] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:43] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"ekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  UnkeRDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"kulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:4RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"5] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:45] ERDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"xplicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] ExplicRDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"it valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekuliRDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"ze mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:45] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:45] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:45] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  UnRDKit ERROR: [22:31:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"kekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 1RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"1 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atRDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"oms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 1RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"2 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulizRDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"e mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:48] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:48] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:48] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:50] Can'RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"t kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoRDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"ms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 1RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"6 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \" 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  UnkeRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"kulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:50] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize molRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \".  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms:RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \" 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \" 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] CanRDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"'t kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  UnkekulRDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"ized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:52] CaRDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"n't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  UnkekuliRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"zed atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8 9 10\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:54] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:54] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  UnRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"kekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \" 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 8 9\\n\",\n      \"\\n\",\n      \"[22:31:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 9\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 5 7 8 9\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 8\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"ize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \" 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:57] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:31:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:31:59] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:31:59] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:59] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:59] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:31:59] CanRDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"'t kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:31:59] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:00]RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \" Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:00] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  UnRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"kekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:00] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:00] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \" 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:02] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:02] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atomRDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"s: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 8 9\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 8 9\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 7 8\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:05] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:05] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:05] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 1RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"0 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 1RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"1 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atomRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"s: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize molRDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \".  Unkekulized atoms: 3 4 6 7 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 7 8\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \" 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:32:07] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:08] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 9\\n\",\n      \"\\n\",\n      \"[22:32:08] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:08] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:08] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:3RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"2:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10]RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \" Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kRDKit ERROR: \\n\",\n      \"ekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:3RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"2:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:10] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:10] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:10] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:10] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:10] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:10] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:12] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 RDKit ERROR: \\n\",\n      \"8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:12] RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulizeRDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \" mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  URDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"nkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] CRDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"an't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:12] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:12] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:12] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:12] Explicit valence for atom # 1 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"O, 4, is greater than permitted\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:12] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:13] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize moRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"l.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  URDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"nkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:3RDKit ERROR: \\n\",\n      \"2:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Explicit valence for atom # 1 O, 4, is gRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"reater than permitted\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:32:15] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:15] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"[22:32:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:18] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:18] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:18] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:18] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"ol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \" 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoRDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"ms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:20] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:20] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:21] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \" 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:23] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:32:23] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:23] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \" 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't keRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"kulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \" 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:26] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:26] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 1RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"0\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] CRDKit ERROR: \\n\",\n      \"an't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"oms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 1RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"7 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:28] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:28] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:29] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"ms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't keRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"kulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't keRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"kulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"[22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  UnkekuRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"lized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  UnRDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"kekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15RDKit ERROR: \\n\",\n      \" 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:31] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:31] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:31] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't keRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"kulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \":32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 RDKit ERROR: \\n\",\n      \"10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] ExpRDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"licit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:33] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:3RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"4] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  UnkeRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"kulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:34] CaRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"n't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize moRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"l.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \" 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:34] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:34] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:3RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"2:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \" 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:36] CaRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"n't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  UnkekRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"ulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  UnkRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"ekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:36] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:36] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:36] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:36] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized aRDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"toms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:39] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \" 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:39] ExpRDKit ERROR: \\n\",\n      \"licit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  UnkekuliRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"zed atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  UnkekulRDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:39] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"ized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:39] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:39] Can't kekulize mol.  UnkekulizRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"ed atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:39] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:39] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  UnkekulRDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"ized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulizeRDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \" mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"ulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms:RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \" 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"[22:32:41] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 1RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"4 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:41] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:42] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:42] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:44] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \" 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  UnRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"kekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"ulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  UnkeRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"kulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"ol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can'RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"t kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 1RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"2 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44]RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \" Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:44] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:44] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:44] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:44] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:46] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:46] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:46] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:46] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:46] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:46] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:46] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:46] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:46] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:46] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:46] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:46] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:46] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:46] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:46] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:46] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:46] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:46] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:46] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:46] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:46] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:46] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"ulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekRDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"ulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:47] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:47] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:47] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \":49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"[22:32:49] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:49] Can'tRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \" kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kRDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"ekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:49] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"[22:32:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  UnkekuRDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"lized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \" 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  URDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"nkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:52] Can't kekulize mol.  UnkekuliRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"zed atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  UnRDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"kekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atomsRDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \": 2 3 4 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:5RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"2] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:52] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:52] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Explicit valence for atom # 1 N, 5, is greater than permittRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"ed\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 14 15\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulRDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"ize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \" 5 6 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atomRDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"s: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"[22:32:55] Explicit valence for atom # 1 O, 4, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 5 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7 8 9 10 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 9 10 11 12 13 14 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 14 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11 12 13 14 15\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 16 17\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 14 15 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 6 7 8 9 10 11 12 13 14 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10 11 12 13 15 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"[22:32:55] Explicit valence for atom # 1 N, 5, is greater than permitted\\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7 8 9 10 11 12 13 15 16 17 18\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"RDKit ERROR: \\n\",\n      \"RDKit ERROR: [22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 2 3 4 5 6 7 8 9 11\\n\",\n      \"\\n\",\n      \"[22:32:55] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"for _ in range(T):\\n\",\n    \"    for i in range(len(arr_list)):\\n\",\n    \"        idx = np.random.randint(0, len(arr_list[i]))\\n\",\n    \"        frag_type = arr_list[i][idx]\\n\",\n    \"\\n\",\n    \"        # 構造改変用のフラグメント集合から F をランダムに選択する.\\n\",\n    \"        new_frag  = np.random.choice(fragment_list[frag_type])\\n\",\n    \"        rsmi = ast_Insert(new_frag)\\n\",\n    \"        rsmi = ast_Insert(rsmi)\\n\",\n    \"        \\n\",\n    \"        # 選択されたフラグメントを F に置き換えて，Si′ を作成する.\\n\",\n    \"        recipe[i][idx] = rsmi\\n\",\n    \"\\n\",\n    \"    rsmi_list = []\\n\",\n    \"    for resi in recipe:\\n\",\n    \"        rsmi = resi[0]\\n\",\n    \"        for i in range(1, len(resi)):\\n\",\n    \"            smiles = rsmi\\n\",\n    \"            #rsmi = combine_fragments.combine_fragments(rsmi, resi[i])\\n\",\n    \"            rsmi = GetCombSmiles([rsmi, resi[i]])\\n\",\n    \"            if rsmi is None:\\n\",\n    \"                rsmi = smiles\\n\",\n    \"\\n\",\n    \"        rsmi = rsmi.replace('(*)','').replace('[*]','').replace('*','')\\n\",\n    \"\\n\",\n    \"        if rsmi is not None and Chem.MolFromSmiles(rsmi):\\n\",\n    \"            rsmi_list.append(rsmi)\\n\",\n    \"\\n\",\n    \"    # 適合度 wi = exp(−(YH∗ − fH (Si′ ))2 − (YL∗ − fL (Si′ ))2 ) を計算する.\\n\",\n    \"    FPs_NewStrcture = FPs.transform(pd.Series(rsmi_list))        \\n\",\n    \"    pred_homo = rg_HOMO.predict(FPs_NewStrcture)\\n\",\n    \"    pred_lumo =  rg_LUMO.predict(FPs_NewStrcture)\\n\",\n    \"\\n\",\n    \"    weight = np.exp(-(target_HOMO-pred_homo)**2-(target_LUMO-pred_lumo)**2)\\n\",\n    \"    \\n\",\n    \"    index_list = random.choices(range(100), k=100, weights=weight)\\n\",\n    \"\\n\",\n    \"    arr_list_new = []\\n\",\n    \"    recipe_new = []\\n\",\n    \"    for idx in index_list:\\n\",\n    \"        arr_list_new.append(arr_list[idx])\\n\",\n    \"        recipe_new.append(recipe[idx])\\n\",\n    \"\\n\",\n    \"    arr_list = arr_list_new.copy()\\n\",\n    \"    recipe = recipe_new.copy()\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 21,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Draw/IPythonConsole.py:190: UserWarning: Truncating the list of molecules to be displayed to 50. Change the maxMols value to display more.\\n\",\n      \"  warnings.warn(\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<IPython.core.display.Image object>\"\n      ]\n     },\n     \"execution_count\": 21,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"mols = []\\n\",\n    \"for smi in rsmi_list:\\n\",\n    \"    mols.append(Chem.MolFromSmiles(smi))\\n\",\n    \"    \\n\",\n    \"Draw.MolsToGridImage(mols,molsPerRow=5)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"iMacHome_xepy38_working\",\n   \"language\": \"python\",\n   \"name\": \"imachome_xepy38_working\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.8.12\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "mi_book/exercise_22.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 演習22）以下の解説とサンプルコードを参考に，所望の熱伝導率と線膨張係数を持つ高分子のモノマーを設計せよ．物性の目標範囲を変化させて，生成されるモノマーの構造的な違いを考察せよ．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Failed to import duecredit due to No module named 'duecredit'\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"import os\\n\",\n    \"import joblib\\n\",\n    \"import numpy as np\\n\",\n    \"import pandas as pd\\n\",\n    \"import pickle as pk\\n\",\n    \"from copy import deepcopy\\n\",\n    \"\\n\",\n    \"import matplotlib.pyplot as plt\\n\",\n    \"import seaborn as sns\\n\",\n    \"\\n\",\n    \"from rdkit import Chem\\n\",\n    \"from rdkit.Chem import Draw\\n\",\n    \"\\n\",\n    \"from xenonpy.descriptor import Fingerprints\\n\",\n    \"from xenonpy.datatools import Splitter, Scaler\\n\",\n    \"from xenonpy.inverse.iqspr import NGram, GaussianLogLikelihood, IQSPR\\n\",\n    \"\\n\",\n    \"from sklearn.ensemble import RandomForestRegressor as RFR\\n\",\n    \"from sklearn.model_selection import GridSearchCV\\n\",\n    \"from sklearn.metrics import mean_squared_error, r2_score\\n\",\n    \"import forestci as fci\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"dir_file = 'data/Book_data_MD.csv'\\n\",\n    \"data = pd.read_csv(dir_file)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"物性の分布を確認する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 720x720 with 20 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"sns_plot = sns.pairplot(data.drop('SMILES', axis=1), plot_kws={'alpha':0.2})\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"XenonPyで記述子計算機を用意する（参考： 演習13）。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [],\n   \"source\": [\n    \"# prepare customized descriptor function\\n\",\n    \"\\n\",\n    \"from xenonpy.descriptor.base import BaseDescriptor\\n\",\n    \"from xenonpy.descriptor import ECFP, DescriptorFeature\\n\",\n    \"from xenonpy.contrib.extend_descriptors.descriptor import Mordred2DDescriptor\\n\",\n    \"\\n\",\n    \"class CustomDesc(BaseDescriptor):\\n\",\n    \"    def __init__(self, n_jobs=-1, on_errors='nan', input_type='smiles'):\\n\",\n    \"        super().__init__(on_errors=on_errors)\\n\",\n    \"        self.n_jobs = n_jobs\\n\",\n    \"        self.input_type = input_type\\n\",\n    \"\\n\",\n    \"        self.rdkit_fp = ECFP(n_jobs, on_errors=on_errors, input_type=input_type, return_type='df', radius=3, n_bits=2048, counting=True)\\n\",\n    \"        self.rdkit_fp = DescriptorFeature(on_errors=on_errors, input_type=input_type, return_type='df')\\n\",\n    \"\\n\",\n    \"fp_fcn = CustomDesc()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"MaxPartialCharge       283\\n\",\n      \"MinPartialCharge       283\\n\",\n      \"MaxAbsPartialCharge    283\\n\",\n      \"MinAbsPartialCharge    283\\n\",\n      \"BCUT2D_MWHI            300\\n\",\n      \"BCUT2D_MWLOW           300\\n\",\n      \"BCUT2D_CHGHI           300\\n\",\n      \"BCUT2D_CHGLO           300\\n\",\n      \"BCUT2D_LOGPHI          300\\n\",\n      \"BCUT2D_LOGPLOW         300\\n\",\n      \"BCUT2D_MRHI            300\\n\",\n      \"BCUT2D_MRLOW           300\\n\",\n      \"dtype: int64\\n\",\n      \"Final num. of descriptors = 2243\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# calculate descriptors\\n\",\n    \"fp = fp_fcn.transform(data['SMILES'])\\n\",\n    \"\\n\",\n    \"# check NA values in the descriptors\\n\",\n    \"idx_na = fp.isna().sum() > 0\\n\",\n    \"print(fp.isna().sum()[idx_na])\\n\",\n    \"\\n\",\n    \"# avoid using Ipc because it is easy to overflow\\n\",\n    \"idx_na['Ipc'] = True\\n\",\n    \"\\n\",\n    \"fp_filtered = fp.loc[:, ~idx_na]\\n\",\n    \"print(f'Final num. of descriptors = {fp_filtered.shape[1]}')\\n\",\n    \"\\n\",\n    \"desc_picked = [x for x in fp_filtered.columns.values if ('ecfp6_c' not in x) and (x not in idx_na.index[idx_na])] \\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# prepare customized descriptor function\\n\",\n    \"\\n\",\n    \"from xenonpy.descriptor.base import BaseDescriptor\\n\",\n    \"from xenonpy.descriptor import ECFP, DescriptorFeature\\n\",\n    \"\\n\",\n    \"class CustomDesc_filtered(BaseDescriptor):\\n\",\n    \"    def __init__(self, n_jobs=-1, on_errors='nan', input_type='smiles'):\\n\",\n    \"        super().__init__(on_errors=on_errors)\\n\",\n    \"        self.n_jobs = n_jobs\\n\",\n    \"        self.input_type = input_type\\n\",\n    \"\\n\",\n    \"        self.rdkit_fp = ECFP(n_jobs, on_errors=on_errors, input_type=input_type, return_type='df', radius=3, n_bits=2048, counting=True)\\n\",\n    \"        self.rdkit_fp = DescriptorFeature(on_errors=on_errors, input_type=input_type, return_type='df', desc_list=desc_picked)\\n\",\n    \"\\n\",\n    \"fp_fcn = CustomDesc_filtered()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"すべてのMDデータを用いてランダムフォレストモデルを学習し、予測を行う (参考: 演習13)。\\n\",\n    \"\\n\",\n    \"[実行に数分かかる。]\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# x-axis: observation data, y-axis: prediction\\n\",\n    \"def plot_prediction(x_tr, y_tr, x_te, y_te, dir_file):\\n\",\n    \"    xy_min = min(np.concatenate([x_tr, x_te, y_tr, y_te]))\\n\",\n    \"    xy_max = max(np.concatenate([x_tr, x_te, y_tr, y_te]))\\n\",\n    \"    xy_del = xy_max - xy_min\\n\",\n    \"    \\n\",\n    \"    _ = plt.figure(figsize=(5,5))\\n\",\n    \"    _ = plt.scatter(x_tr, y_tr, s=20, c='r', marker='x', alpha=0.3, label='Training')\\n\",\n    \"    _ = plt.scatter(x_te, y_te, s=20, c='b', alpha=0.4, label='Test')\\n\",\n    \"    _ = plt.rc('xtick',labelsize=14)\\n\",\n    \"    _ = plt.rc('ytick',labelsize=14)\\n\",\n    \"    _ = plt.xlabel('Prediction', fontsize=14)\\n\",\n    \"    _ = plt.ylabel('Observation', fontsize=14)\\n\",\n    \"    _ = plt.legend(fontsize=14)\\n\",\n    \"    _ = plt.plot([xy_min,xy_max],[xy_min,xy_max],ls=\\\"--\\\",c='k')\\n\",\n    \"    _ = plt.savefig(dir_file, dpi = 500, bbox_inches = \\\"tight\\\")\\n\",\n    \"    _ = plt.close()\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 4min 16s, sys: 1.25 s, total: 4min 17s\\n\",\n      \"Wall time: 4min 18s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"dir_plot = 'output/演習22'\\n\",\n    \"os.makedirs(dir_plot, exist_ok=True)\\n\",\n    \"\\n\",\n    \"# target region of the design\\n\",\n    \"target_prop = ['thermal_conductivity', 'linear_expansion']\\n\",\n    \"\\n\",\n    \"# grids for hyperparameters\\n\",\n    \"n_tree = [50, 100, 200]\\n\",\n    \"max_feat_r = [0.3, 0.5, 0.7]\\n\",\n    \"\\n\",\n    \"x_train = fp_filtered\\n\",\n    \"max_feat = np.round([x*x_train.shape[1] for x in max_feat_r]).astype(int)\\n\",\n    \"parameters = {'n_estimators': n_tree, 'max_features': max_feat}\\n\",\n    \"\\n\",\n    \"# fixing random seed for reproducibility\\n\",\n    \"sps = {}\\n\",\n    \"np.random.seed (202202)\\n\",\n    \"for prop in target_prop:\\n\",\n    \"    sps[prop] = Splitter(data.shape[0], test_size=0, k_fold=5)\\n\",\n    \"\\n\",\n    \"mdls = {}\\n\",\n    \"np.random.seed (202202)\\n\",\n    \"for prop, y_train in data[target_prop].iteritems():\\n\",\n    \"    mdls[prop] = []\\n\",\n    \"    prd_tr, prd_te = [], []\\n\",\n    \"    obs_tr, obs_te = [], []\\n\",\n    \"    for x_tr, x_te, y_tr, y_te in sps[prop].cv(x_train, y_train):\\n\",\n    \"        # train model with hyperparameter tuning\\n\",\n    \"        mdl = GridSearchCV(RFR(), parameters, scoring='neg_mean_squared_error')\\n\",\n    \"        mdl.fit(x_tr, y_tr) # requires 1D vector for model training\\n\",\n    \"        mdls[prop].append(deepcopy(mdl.best_estimator_))\\n\",\n    \"        \\n\",\n    \"        prd_tr.append(mdls[prop][-1].predict(x_tr))\\n\",\n    \"        prd_te.append(mdls[prop][-1].predict(x_te))\\n\",\n    \"\\n\",\n    \"        obs_tr.append(y_tr.values)\\n\",\n    \"        obs_te.append(y_te.values)\\n\",\n    \"    \\n\",\n    \"    plot_prediction(np.concatenate(prd_tr), np.concatenate(obs_tr), np.concatenate(prd_te), np.concatenate(obs_te), f'{dir_plot}/RF_{prop}.png')\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"尤度の関数とターゲット物性領域を設定する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"class bootstrap_fcn():\\n\",\n    \"    def __init__(self, ms, var):\\n\",\n    \"        self.Ms = ms\\n\",\n    \"        self.Var = var\\n\",\n    \"    def predict(self, x):\\n\",\n    \"        val = np.array([m.predict(x) for m in self.Ms])\\n\",\n    \"        return np.mean(val, axis = 0), np.sqrt(np.var(val, axis = 0) + self.Var)\\n\",\n    \"\\n\",\n    \"# include basic measurement noise\\n\",\n    \"c_var = {'thermal_conductivity': 0.05**2, 'linear_expansion': 0.00005**2}\\n\",\n    \"\\n\",\n    \"# generate a dictionary for the final models used to create the likelihood\\n\",\n    \"custom_mdls = {key: bootstrap_fcn(value, c_var[key]) for key, value in mdls.items()}\\n\",\n    \"\\n\",\n    \"# set target range\\n\",\n    \"target_range = {'thermal_conductivity': (0.24, np.inf), 'linear_expansion': (-np.inf, 0.00015)}\\n\",\n    \"\\n\",\n    \"# import descriptor calculator and forward model to iQSPR\\n\",\n    \"prd_mdls = GaussianLogLikelihood(descriptor=fp_fcn, targets=target_range, **custom_mdls)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"物性の予測値の分布を描く。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"   thermal_conductivity: mean  thermal_conductivity: std  \\\\\\n\",\n      \"0                    0.228028                   0.050617   \\n\",\n      \"1                    0.109654                   0.050020   \\n\",\n      \"2                    0.169699                   0.050223   \\n\",\n      \"3                    0.205657                   0.050104   \\n\",\n      \"4                    0.233679                   0.051242   \\n\",\n      \"\\n\",\n      \"   linear_expansion: mean  linear_expansion: std  \\n\",\n      \"0                0.000383               0.000053  \\n\",\n      \"1                0.000174               0.000050  \\n\",\n      \"2                0.000228               0.000051  \\n\",\n      \"3                0.000219               0.000050  \\n\",\n      \"4                0.000097               0.000050  \\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# predict property values\\n\",\n    \"pred = prd_mdls.predict(data['SMILES'])\\n\",\n    \"print(pred.head())\\n\",\n    \"\\n\",\n    \"# calculate log-likelihood for a given target property region\\n\",\n    \"tmp_ll = prd_mdls.log_likelihood(data['SMILES'])\\n\",\n    \"tmp = tmp_ll.sum(axis = 1, skipna = True)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 432x360 with 2 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# check the predicted likelihood\\n\",\n    \"dot_scale = 500\\n\",\n    \"l_std = np.sqrt(pred['thermal_conductivity: std']**2+pred['linear_expansion: std']**2)\\n\",\n    \"\\n\",\n    \"_ = plt.figure(figsize=(6,5))\\n\",\n    \"rectangle = plt.Rectangle((0.24,0),0.16,0.00015,fc='y',alpha=0.1)\\n\",\n    \"_ = plt.gca().add_patch(rectangle)\\n\",\n    \"im = plt.scatter(pred['thermal_conductivity: mean'], pred['linear_expansion: mean'], s=l_std*dot_scale, c=np.exp(tmp),alpha = 0.2,cmap=plt.get_cmap('cool'))\\n\",\n    \"_ = plt.title('MD data', fontsize=20)\\n\",\n    \"_ = plt.xlabel('thermal_conductivity', fontsize=16)\\n\",\n    \"_ = plt.ylabel('linear_expansion', fontsize=16)\\n\",\n    \"_ = plt.colorbar(im)\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"分子生成器（NGram）を訓練して、iQSPRを実行する。この演習はMDデータにある300個のポリマー分子を使う。実際には学習したい分子構造の多様性によって、もっと大量なデータが必要である。\\n\",\n    \"\\n\",\n    \"注意：一つの分子に対して複数のSMILES表現があるため、まずはSMILESを変化させて、NGramの訓練データに追加する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 432x288 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 526 ms, sys: 5.48 ms, total: 531 ms\\n\",\n      \"Wall time: 530 ms\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"np.random.seed(202202) # fix the random seed\\n\",\n    \"\\n\",\n    \"# Method: expand n-gram training set with randomly reordered SMILES\\n\",\n    \"# (we show one of the many possible ways of doing it)\\n\",\n    \"n_reorder = 20 # pick a fixed number of re-ordering\\n\",\n    \"\\n\",\n    \"# convert the SMILES to canonical SMILES in RDKit (not necessary in general)\\n\",\n    \"cans = []\\n\",\n    \"for smi in data['SMILES']:\\n\",\n    \"    # remove some molecules in the full SMILES list that may lead to error\\n\",\n    \"    try:\\n\",\n    \"        cans.append(Chem.MolToSmiles(Chem.MolFromSmiles(smi)))\\n\",\n    \"    except:\\n\",\n    \"        print(smi)\\n\",\n    \"        pass\\n\",\n    \"\\n\",\n    \"mols = [Chem.MolFromSmiles(smi) for smi in cans]\\n\",\n    \"smi_reorder_all = []\\n\",\n    \"smi_reorder = []\\n\",\n    \"for mol in mols:\\n\",\n    \"    idx = list(range(mol.GetNumAtoms()))\\n\",\n    \"    tmp = [Chem.MolToSmiles(mol,rootedAtAtom=x) for x in range(len(idx))]\\n\",\n    \"    smi_reorder_all.append(np.array(list(set(tmp))))\\n\",\n    \"    smi_reorder.append(np.random.choice(smi_reorder_all[-1],n_reorder,\\n\",\n    \"                                        replace=(len(smi_reorder_all[-1]) < n_reorder)))\\n\",\n    \"\\n\",\n    \"n_uni = [len(x) for x in smi_reorder_all]\\n\",\n    \"plt.hist(n_uni, bins='auto')  # arguments are passed to np.histogram\\n\",\n    \"plt.title(\\\"Histogram for number of SMILES variants\\\")\\n\",\n    \"plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"拡張したSMILESデータを使ってNGramを訓練する。\\n\",\n    \"\\n\",\n    \"注意：実行に20分程かかるので、代わりにこのセルをスキップして、次のセルで訓練済みのNGramを導入することも可能である。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 13,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"100%|███████████████████████████████████████| 6000/6000 [13:22<00:00,  7.47it/s]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 13min 23s, sys: 21.7 s, total: 13min 45s\\n\",\n      \"Wall time: 13min 30s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# flatten out the list and train the N-gram\\n\",\n    \"flat_list = [item for sublist in smi_reorder for item in sublist]\\n\",\n    \"\\n\",\n    \"n_gram_reorder = NGram(reorder_prob=0.5)\\n\",\n    \"n_gram_reorder.fit(flat_list,train_order=30)\\n\",\n    \"# save results\\n\",\n    \"_ = joblib.dump(n_gram_reorder, 'data/ngram_MD_reO20_O30.xz')\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"NGramの長い訓練時間を回避するため、代わりに事前に用意した分子生成器（NGram）を導入する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"n_gram = joblib.load('data/ngram_MD_reO20_O30.xz')\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"300のMD library SMILESから訓練したNGramは多様性が足りないため、iQSPR-VというをiQSPRの新しいバージョンを使って、局所モードのトラッピングを回避し、最終的に候補の多様性を高めることができる。iQSPR-Vというのは、iQSPRの実行中に、分子を順次修正するのではなく、リザーバー（全ての初期構造として使われる分子構造）からランダムに分子のサンプルを抽出し、一部低尤度の提案分子と置き換えることで、仮想分子設計プロセスにおいて継続的に構造の多様性を維持することができる。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# import codes of iQSPR-V (can also be found in the contrib folder on xenonpy github)\\n\",\n    \"%run data/modifier.py\\n\",\n    \"%run data/iQSPR_V.py\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"iQSPRの事前準備：リザーバーと尤度関数のアニーリング（逆温度の非減少列）betaを設定する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 32,\n   \"metadata\": {\n    \"collapsed\": true,\n    \"jupyter\": {\n     \"outputs_hidden\": true\n    },\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"    thermal_conductivity  linear_expansion\\n\",\n      \"0               0.010000          0.013333\\n\",\n      \"1               0.023571          0.026667\\n\",\n      \"2               0.037143          0.040000\\n\",\n      \"3               0.050714          0.053333\\n\",\n      \"4               0.064286          0.066667\\n\",\n      \"5               0.077857          0.080000\\n\",\n      \"6               0.091429          0.093333\\n\",\n      \"7               0.105000          0.106667\\n\",\n      \"8               0.118571          0.120000\\n\",\n      \"9               0.132143          0.133333\\n\",\n      \"10              0.145714          0.146667\\n\",\n      \"11              0.159286          0.160000\\n\",\n      \"12              0.172857          0.173333\\n\",\n      \"13              0.186429          0.186667\\n\",\n      \"14              0.200000          0.200000\\n\",\n      \"15              0.210000          0.210000\\n\",\n      \"16              0.257500          0.257500\\n\",\n      \"17              0.305000          0.305000\\n\",\n      \"18              0.352500          0.352500\\n\",\n      \"19              0.400000          0.400000\\n\",\n      \"20              0.400000          0.400000\\n\",\n      \"21              0.550000          0.550000\\n\",\n      \"22              0.700000          0.700000\\n\",\n      \"23              0.850000          0.850000\\n\",\n      \"24              1.000000          1.000000\\n\",\n      \"25              1.000000          1.000000\\n\",\n      \"26              1.000000          1.000000\\n\",\n      \"27              1.000000          1.000000\\n\",\n      \"28              1.000000          1.000000\\n\",\n      \"29              1.000000          1.000000\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# set up initial molecules for iQSPR-V\\n\",\n    \"init_samples = data['SMILES'].values\\n\",\n    \"\\n\",\n    \"# set up annealing schedule in iQSPR\\n\",\n    \"beta1 = np.hstack([np.linspace(0.01,0.2,15),np.linspace(0.21,0.4,5),np.linspace(0.4,1,5),np.linspace(1,1,5)])\\n\",\n    \"beta2 = np.hstack([np.linspace(0.2/15,0.2,15),np.linspace(0.21,0.4,5),np.linspace(0.4,1,5),np.linspace(1,1,5)])\\n\",\n    \"beta = pd.DataFrame({'thermal_conductivity': beta1, 'linear_expansion': beta2})\\n\",\n    \"print(beta)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"iQSPR-Vを実行する。\\n\",\n    \"\\n\",\n    \"注意：実行に数分かかる。普通に警告メッセージがいっぱい出るので、演習の時は無視してください。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {\n    \"collapsed\": true,\n    \"jupyter\": {\n     \"outputs_hidden\": true\n    },\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:44:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 10 11 12 13 14 15 23 24 25 26 27 28 32 33 36 37 38\\n\",\n      \"[23:44:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 10 11 12 13 14 15 23 24 25 26 27 28 32 33 36 37 38\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cc2c(C(=O)N(C2=O)c2cc(ccc2)OCCOCCOc2cc(ccc2)N2C(=O)c3c(C2=O)cc(c1)C(=O)N(*)C3=O)COC(*)C(*)C to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:44:38] Can't kekulize mol.  Unkekulized atoms: 18 19 20 21 22 23 24 25 26\\n\",\n      \"[23:44:38] Can't kekulize mol.  Unkekulized atoms: 18 19 20 21 22 23 24 25 26\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *Oc1ccc(cc1)OC(=O)Oc1ccc(cc1)c1ccc(ccccc1)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:44:39] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12\\n\",\n      \"[23:44:39] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)(c1ccc(ccc2c(c1)C(=O)N(*)C2=O)C*)C(*)C* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:44:40] Can't kekulize mol.  Unkekulized atoms: 6 7 8 10 11\\n\",\n      \"[23:44:40] Can't kekulize mol.  Unkekulized atoms: 6 7 8 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)CNc1c(cc(cc1)=O)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:44:41] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 4 5 6 7 8 9 10 11 12\\n\",\n      \"[23:44:41] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 4 5 6 7 8 9 10 11 12\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert n1c2ccccc2c2ccccc21 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:44:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[23:44:42] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *Oc1c(cc(cc1)C(c1ccc(cc1)C(c1cc(c(cc1)OC(=O)*)C)(c1ccc(OC(*)=O)cc1)C*)F)(c1ccc2c(c1)C(=O)N(c1ccc(Oc3ccc(C(C)(C)c4ccc(Oc5ccc(*)cc5)cc4)cc3)cc1)C2=O)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:44:43] Can't kekulize mol.  Unkekulized atoms: 7 8 9 10 11\\n\",\n      \"[23:44:43] Can't kekulize mol.  Unkekulized atoms: 7 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)OC(=O)c1cc(cc1)C(*)C* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:44:45] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"[23:44:45] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(ccccc1)c1ccc(OC(=O)c2ccc(C(*)=O)cc2)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:44:47] Can't kekulize mol.  Unkekulized atoms: 0 2 3 4 5 23 24\\n\",\n      \"[23:44:47] Can't kekulize mol.  Unkekulized atoms: 0 2 3 4 5 23 24\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert c1(*)cccc(-n2c(=O)c3cc4c(=O)n(*)c(=O)c4cc3c2=O)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:44:47] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 4 20 21 51 52\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert c1cc2ccc3c(=O)n(-c4ccc(O*)cc4)c(=O)c=3cc(Oc3ccc(S(=O)(=O)c4ccc(Oc5ccc6c(c5)C(=O)N(*)C6=O)cc4)cc3)cc2C(=O)N1* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"[23:44:47] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 4 20 21 51 52\\n\",\n      \"\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:44:51] Can't kekulize mol.  Unkekulized atoms: 4 5 6 8 9\\n\",\n      \"[23:44:51] Can't kekulize mol.  Unkekulized atoms: 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1cc(c(cc1)=O)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:01] Can't kekulize mol.  Unkekulized atoms: 16\\n\",\n      \"[23:45:01] Can't kekulize mol.  Unkekulized atoms: 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cccc(Oc2ccc(N3C(=O)c4cc5C(=O)N(*)C5=O)cc4)c(C)c(=O)c3cc2c(=O)n1* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:02] Can't kekulize mol.  Unkekulized atoms: 16\\n\",\n      \"[23:45:02] Can't kekulize mol.  Unkekulized atoms: 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cccc(Oc2ccc(N3C(=O)c4cc5C(=O)N(*)C(=O)N(*)C5=O)cc4)c(C)c(=O)c3cc2c(=O)n1* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"[23:45:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(ccc2c(c1)C(=O)N(c1cccc(*)c1)C2=O)N(*)C to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:04] Explicit valence for atom # 57 C, 8, is greater than permitted\\n\",\n      \"[23:45:04] Explicit valence for atom # 57 C, 8, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C1C(C2C(C1)C(C(C2)CC*)OC(=O)CCCCCCCCCCOc2ccc(cc2)c2ccc(cc2)C#N)OC(=O)CCCCCCCCCCOc2ccc(cc2)(c2ccc(OC(*)=O)cc2)(c2ccc(O*)cc2)c2ccc(OC(*)=O)cc2 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 10 11 12 13 14 15 18 19 20 21 22 23 44 45 46\\n\",\n      \"[23:45:04] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 10 11 12 13 14 15 18 19 20 21 22 23 44 45 46\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cc2c(C(=O)N(C2=O)c2cc(ccc2)C(=O)c2cc(ccc2)N2C(=O)c3c(=O)c4cc5c(=O)n(*)c(=O)c5cc4c3=O)ccc2C(=O)N1* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12\\n\",\n      \"[23:45:04] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1ccc(ccccc1)N(*)C to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:07] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 13 14\\n\",\n      \"[23:45:07] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1nc(nc(C(*)C*)cc1)NC(=O)OC(C)(C)C to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:13] Can't kekulize mol.  Unkekulized atoms: 29 30 31 32 38 39 40 41 42 43 68\\n\",\n      \"[23:45:13] Can't kekulize mol.  Unkekulized atoms: 29 30 31 32 38 39 40 41 42 43 68\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *N1C(=O)c2c(C1=O)cc(cc2)Oc2ccc(cc2)S(=O)(=O)c2ccc(cc2)Oc2cc1c(C(=O)N(C1=O)c1cc(ccc(N3C(=O)c4ccc(C(=O)Nc5ccc(NC(*)=O)cc5)cc4C3=O)c1)C(=O)N(c1ccc(Oc3ccc(C(C)(C)c4ccc(Oc5ccc(*)cc5)cc4)cc3)cc1)C2=O)C(=O)OCCCCCCC to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:13] Explicit valence for atom # 7 C, 7, is greater than permitted\\n\",\n      \"[23:45:13] Explicit valence for atom # 7 C, 7, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *OC(=O)c1ccc(ccccc1C(*)C*)(c1ccccc1)(C(F)(F)F)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:14] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"[23:45:14] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(ccc(c1)=O)c1ccc(S(=O)(=O)c2ccc(Oc3ccc(*)cc3)cc2)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 9 68 69\\n\",\n      \"[23:45:15] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 9 68 69\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cccc(S(=O)(=O)c2cccc(-n3c(=O)c4cc(C)cc(CC(*)C*)c(Oc5ccc(S(=O)(=O)c6ccc(Oc7ccc8c(c7)C(=O)N(c7ccc(*)cc7)C8=O)cc6)cc5)cc4)cc3)cc1C(=O)N(c1ccc(S(=O)(=O)c3ccc(N4C(=O)c5ccc(C(=O)Nc6ccc(NC(*)=O)cc6)cc5C4=O)cc3)cc1)C2=O to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:16] Can't kekulize mol.  Unkekulized atoms: 11 12 13 16 17 18 19 61 62\\n\",\n      \"[23:45:16] Can't kekulize mol.  Unkekulized atoms: 11 12 13 16 17 18 19 61 62\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert c1cc(O*)ccc1S(=O)(=O)c1ccc(Oc2ccc(C(C3=CC=C(C(*)C*)C=C(*)C=C3)(c3ccc4c(c3)C(=O)N(c3ccc(Oc5cccc(*)c5)cc3)C4=O)C2=O)cc1)(CCN(C)C)c1ccc(C(*)C*)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:17] Explicit valence for atom # 5 C, 6, is greater than permitted\\n\",\n      \"[23:45:17] Explicit valence for atom # 5 C, 6, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(ccc(c1)C(*)C*)(c1ccccc1)c1ccc(OC(*)=O)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:19] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 4 5 11 12 13 14 15 16 18 19 20 21 22 23 57 58 59\\n\",\n      \"[23:45:19] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 4 5 11 12 13 14 15 16 18 19 20 21 22 23 57 58 59\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert c12ccc3c(c1)C(=O)N(C3=O)c3ccc(cc3)Oc3ccc(cc3)N3C(=O)C(C)=C(C=C(*)CC2C(C)(c2ccc(OC(*)=O)cc2)c2ccc(OC(*)=O)cc2)cc2c3C(=O)N(*)C2=O to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:21] Can't kekulize mol.  Unkekulized atoms: 7 8 9 11 12 15 16\\n\",\n      \"[23:45:21] Can't kekulize mol.  Unkekulized atoms: 7 8 9 11 12 15 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)OC(=O)c1ccc(cc(O*)cc1)(c1ccccc1)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:21] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 11 12\\n\",\n      \"[23:45:21] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 11 12\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(c(c(c(O*)cc1)C*)F)c1ccc(C(C)(C)c2ccc(Oc3ccc(*)cc3)cc2)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:24] Can't kekulize mol.  Unkekulized atoms: 7 8 9 10 11 12 13\\n\",\n      \"[23:45:24] Can't kekulize mol.  Unkekulized atoms: 7 8 9 10 11 12 13\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)OC(=O)c1c(ccccc1C(*)C*)c1ccc(N2C(=O)c3ccc(Oc4ccc(S(=O)(=O)c5ccc(Oc6ccc7c(c6)C(=O)N(*)C7=O)cc5)cc4)cc3C2=O)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:25] Can't kekulize mol.  Unkekulized atoms: 5 6 7\\n\",\n      \"[23:45:25] Can't kekulize mol.  Unkekulized atoms: 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)Cc1cc(c2ccc(*)cc2)NN(C(*)C*)C1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:25] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(cc(c(c2ccccc2)C(=O)N(*)C1=O)c1ccc(Oc2ccc(N3C(=O)c4ccc(C(c5ccc6c(c5)C(=O)N(*)C6=O)(C(F)(F)F)C(F)(F)F)cc4C3=O)cc2)cc1)C(*)C* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"[23:45:25] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8\\n\",\n      \"\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:29] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 29 30\\n\",\n      \"[23:45:29] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 29 30\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(ccc(Cc2ccc(NC(=O)OCc3cccc(C*)c3)cc2)cc1)c1ccc(N2C(=O)c3ccc(Oc4ccc(S(=O)(=O)c5ccc(Oc6ccc7c(c6)C(=O)N(*)C7=O)cc5)cc4)cc3C2=O)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 13 51 52\\n\",\n      \"[23:45:31] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 13 51 52\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert [N+](=O)([O-])c1ccc(NCC(*)C*)c(-c2ccc(Oc3ccc(N4C(=O)c5ccc(Oc6ccc7c(c6)C(=O)N(*)C7=O)cc5C4=O)cc3)cc2)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:35] Can't kekulize mol.  Unkekulized atoms: 0 1 2 8 38 39 61\\n\",\n      \"[23:45:35] Can't kekulize mol.  Unkekulized atoms: 0 1 2 8 38 39 61\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert c1cc(CC(*)C*)c(Oc2ccc(S(=O)(=O)c3ccc(Oc4ccc5c(c4)C(=O)N(*)C5=O)cc3)cc2)cc2c(=O)n(-c3cccc(S(=O)(=O)c5ccc(*)cc5)c3)c(=O)c12 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:35] Can't kekulize mol.  Unkekulized atoms: 4 5 7 8 9\\n\",\n      \"[23:45:35] Can't kekulize mol.  Unkekulized atoms: 4 5 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(c(c(c(c1F)F)OC(*)C*)=O)C(*)C* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:35] Can't kekulize mol.  Unkekulized atoms: 6 8 9 10 11\\n\",\n      \"[23:45:35] Can't kekulize mol.  Unkekulized atoms: 6 8 9 10 11\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C(*)(F)F)(c1c(c(c(c(c1F)F)F)C)(c1ccccc1)C)c1ccc(OC(=O)c2ccc(C(*)=O)cc2)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 9 22 23 24\\n\",\n      \"[23:45:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 9 22 23 24\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cccc(N2C(=O)c3cc4C(=O)N(*)C(=O)N(*)C4=O)c3cc2c(=O)n1* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 9 27 28 29\\n\",\n      \"[23:45:36] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 9 27 28 29\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cccc(N2C(=O)c3cc4C(=O)N(*)C(=O)c5ccc(*)cc5C4=O)c3cc2c1=O to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:37] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 9 22 23 24\\n\",\n      \"[23:45:37] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 9 22 23 24\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cccc(N2C(=O)c3cc4C(=O)N(*)C(=O)N(*)C4=O)c3cc2c1=O to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 9 22 23 24\\n\",\n      \"[23:45:41] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 9 22 23 24\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cccc(N2C(=O)c3cc4C(=O)N(*)C(=O)N(*)C4=O)c3cc2c(=O)n1* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:42] Can't kekulize mol.  Unkekulized atoms: 4 6 7 8 9\\n\",\n      \"[23:45:42] Can't kekulize mol.  Unkekulized atoms: 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(ccc(c1)C(F)F)(c1ccc(O*)cc1)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 23 24\\n\",\n      \"[23:45:44] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 23 24\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cccc(-n2c(=O)c3cc4c(=O)n(*)c(=O)c4cc3c2=O)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:45] Can't kekulize mol.  Unkekulized atoms: 31 48 49\\n\",\n      \"[23:45:45] Can't kekulize mol.  Unkekulized atoms: 31 48 49\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert c1c(C(=O)c2cccc(N3C(=O)c4ccc(C(*)=O)cc4C3=O)c2)cccc1-n1c(=O)c(-c2ccc(S(=O)(=O)c3ccc(*)cc3)cc2)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:46] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"[23:45:46] Can't kekulize mol.  Unkekulized atoms: 2 4 5 6 7\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *Oc1c(cc(cc1)C(c1ccc(cc1)C(c1cc(c(cc1)OC(=O)*)NCCCCCC(=O)O*)C*)C(*)C*)(C(F)(F)F)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:49] Can't kekulize mol.  Unkekulized atoms: 6 7 8 9 10 11 12 13 14\\n\",\n      \"[23:45:49] Can't kekulize mol.  Unkekulized atoms: 6 7 8 9 10 11 12 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)C(=O)c1cc(c(ccccc1)c1ccccc1C(*)C*)C(*)C* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:51] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 23 24\\n\",\n      \"[23:45:51] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 23 24\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cccc(-n2c(=O)c3cc4c(=O)n(*)c(=O)c4cc3c2=O)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:472: RuntimeWarning: get_prob: ['*', 'C', '(', 'C', ')', 'C', 'N', 'c', '&', 'c', '(', 'c', 'c', '(', 'c', ')', '[N+]'] not found in NGram, iB=1, iR=0\\n\",\n      \"  warnings.warn('get_prob: %s not found in NGram, iB=%i, iR=%i' % (tmp_str, iB, iR),\\n\",\n      \"RDKit ERROR: [23:45:53] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 17 18\\n\",\n      \"[23:45:53] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(cc(ccc(C(C)(O)CCC)cc1)C)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:55] non-ring atom 28 marked aromatic\\n\",\n      \"[23:45:55] non-ring atom 28 marked aromatic\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert c1ccc(-n2c(=O)c3ccc=3c2=O)cc1OCCOCCOc1cccc(-n2c(=O)c3cc(C*)c3)ccc2C(=O)N1c1cccc(C(=O)Nc2cccc(N3C(=O)c4ccc(*)cc4C3=O)c2)c1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:55] Explicit valence for atom # 5 C, 8, is greater than permitted\\n\",\n      \"[23:45:55] Explicit valence for atom # 5 C, 8, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(ccccc1)(c1ccc(O*)cc1)(c1ccc(O*)cc1)c1ccc(OC(*)=O)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:45:59] Can't kekulize mol.  Unkekulized atoms: 4 6 7 8 9\\n\",\n      \"[23:45:59] Can't kekulize mol.  Unkekulized atoms: 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(cccc1)(C(F)(F)F)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:45:59] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 12 13\\n\",\n      \"[23:45:59] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 12 13\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(ccc([N+](=O)[O-])cn1)C(*)C* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:46:01] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 23 24\\n\",\n      \"[23:46:01] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 23 24\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cccc(-n2c(=O)c3cc4c(=O)n(*)c(=O)c4cc3c2=O)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:46:02] Explicit valence for atom # 8 C, 5, is greater than permitted\\n\",\n      \"[23:46:02] Explicit valence for atom # 8 C, 5, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)C(=O)OCC(C(C(F)(F)F)(F)F)(F)(F)C(*)(F)OC(F)C(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:46:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 24 25\\n\",\n      \"[23:46:05] Can't kekulize mol.  Unkekulized atoms: 3 4 5 6 7 8 9 24 25\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert C1CN(c2ccc3ccc(C(=O)c4ccc5c(c4)C(=O)N(*)C5=O)cc3C2=O)C1=O to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:46:05] Can't kekulize mol.  Unkekulized atoms: 4 5 6 8 9\\n\",\n      \"[23:46:05] Can't kekulize mol.  Unkekulized atoms: 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(cc(c(c1)C*)=O)c1ccc(N2C(=O)c3ccc(Oc4ccc5c(c4)C(=O)N(*)C5=O)cc3C2=O)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:46:06] Can't kekulize mol.  Unkekulized atoms: 4 5 6\\n\",\n      \"[23:46:06] Can't kekulize mol.  Unkekulized atoms: 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1cc(c2ccc(S(=O)(=O)c3ccc(*)cc3)cc2)NN(C(*)C*)C1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:46:08] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 26 27\\n\",\n      \"[23:46:08] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 26 27\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1cccc(-n2c(=O)c3cc4c(=O)n(*)c(=O)c4cc3c2=O)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:46:08] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 56 57\\n\",\n      \"[23:46:08] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 5 56 57\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert c1ccc(Oc2ccc(-n3c(=O)c4ccc5c(=O)n(-c6cccc(C(=O)c7cccc(N8C(=O)c9ccc(C(*)=O)cc9C8=O)c7)c6)c(=O)c5cc(*)c4)cc3)cc2C(=O)N1c1ccc(S(=O)(=O)c2ccc(*)cc2)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 1min 32s, sys: 1.92 s, total: 1min 34s\\n\",\n      \"Wall time: 1min 42s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"dir_out = 'output/演習22'\\n\",\n    \"os.makedirs(dir_out, exist_ok=True)\\n\",\n    \"\\n\",\n    \"# update NGram parameters for this exampleHOMO-LUMO gap\\n\",\n    \"n_gram.set_params(del_range=[1,20],max_len=300, reorder_prob=0.5, sample_order=(1,30))\\n\",\n    \"\\n\",\n    \"# set up likelihood and n-gram models in iQSPR\\n\",\n    \"iqspr_reorder = IQSPR_V(estimator=prd_mdls, modifier=n_gram)\\n\",\n    \"    \\n\",\n    \"np.random.seed(2022) # fix the random seed\\n\",\n    \"# main loop of iQSPR\\n\",\n    \"iqspr_samples1, iqspr_loglike1, iqspr_prob1, iqspr_freq1 = [], [], [], []\\n\",\n    \"for iStep, (s, ll, p, freq) in enumerate(iqspr_reorder(init_samples, beta, yield_lpf=True, ratio=0.5)):\\n\",\n    \"    iqspr_samples1.append(s)\\n\",\n    \"    iqspr_loglike1.append(ll)\\n\",\n    \"    iqspr_prob1.append(p)\\n\",\n    \"    iqspr_freq1.append(freq)\\n\",\n    \"# record all outputs\\n\",\n    \"iqspr_results_reorder = {\\n\",\n    \"    \\\"samples\\\": iqspr_samples1,\\n\",\n    \"    \\\"loglike\\\": iqspr_loglike1,\\n\",\n    \"    \\\"prob\\\": iqspr_prob1,\\n\",\n    \"    \\\"freq\\\": iqspr_freq1,\\n\",\n    \"    \\\"beta\\\": beta\\n\",\n    \"}\\n\",\n    \"# save results\\n\",\n    \"with open(f'{dir_out}/iQSPRV_results_case1.obj', 'wb') as f:\\n\",\n    \"    pk.dump(iqspr_results_reorder, f)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"iQSPRの過程に尤度の変化：所望の物性に近つくことがわかる。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 19,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 720x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 720x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# plot the likelihood evolution\\n\",\n    \"\\n\",\n    \"# set up the min and max boundary for the plots\\n\",\n    \"tmp_list = [x.sum(axis = 1, skipna = True).values for x in iqspr_results_reorder[\\\"loglike\\\"]]\\n\",\n    \"flat_list = np.asarray([item for sublist in tmp_list for item in sublist])\\n\",\n    \"y_max, y_min = max(flat_list), min(flat_list)\\n\",\n    \"\\n\",\n    \"_ = plt.figure(figsize=(10,5))\\n\",\n    \"_ = plt.xlim(0,len(iqspr_results_reorder[\\\"loglike\\\"]))\\n\",\n    \"_ = plt.ylim(y_min,y_max)\\n\",\n    \"_ = plt.xlabel('Step')\\n\",\n    \"_ = plt.ylabel('Log-likelihood')\\n\",\n    \"for i, ll in enumerate(tmp_list):\\n\",\n    \"    _ = plt.scatter([i]*len(ll), ll ,s=10, c='b', alpha=0.2)\\n\",\n    \"_ = plt.show()\\n\",\n    \"#plt.savefig('iqspr_loglike_reorder.png',dpi = 500)\\n\",\n    \"#plt.close()\\n\",\n    \"\\n\",\n    \"y_max, y_min = np.exp(y_max), np.exp(y_min)\\n\",\n    \"_ = plt.figure(figsize=(10,5))\\n\",\n    \"_ = plt.xlim(0,len(iqspr_results_reorder[\\\"loglike\\\"]))\\n\",\n    \"_ = plt.ylim(y_min,y_max)\\n\",\n    \"_ = plt.xlabel('Step')\\n\",\n    \"_ = plt.ylabel('Likelihood')\\n\",\n    \"for i, ll in enumerate(tmp_list):\\n\",\n    \"    _ = plt.scatter([i]*len(ll), np.exp(ll) ,s=10, c='b', alpha=0.2)\\n\",\n    \"_ = plt.show()\\n\",\n    \"#plt.savefig('iqspr_like_reorder.png',dpi = 500)\\n\",\n    \"#plt.close()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"iQSPRの過程に物性値の変化：iQSPR-Vは探索の過程に、提案した高分子の物性がターゲット領域にの収束は一見遅くなるが、NGramの訓練用データが少ない状況でも提案の高分子の多様性が高い。\\n\",\n    \"\\n\",\n    \"[実行に数分かかる。]\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 20,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Range of std. dev.: (0.0500,0.0535)\\n\",\n      \"CPU times: user 9.42 s, sys: 331 ms, total: 9.75 s\\n\",\n      \"Wall time: 13.3 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# re-calculate the property values for the proposed molecules\\n\",\n    \"x_mean, x_std, y_mean, y_std = [], [], [], []\\n\",\n    \"r_std = []\\n\",\n    \"FPs_samples = []\\n\",\n    \"for i, smis in enumerate(iqspr_results_reorder[\\\"samples\\\"]):\\n\",\n    \"    tmp_fps = fp_fcn.transform(smis)\\n\",\n    \"    FPs_samples.append(tmp_fps)\\n\",\n    \"\\n\",\n    \"    tmp1, tmp2 = prd_mdls['thermal_conductivity'].predict(tmp_fps)\\n\",\n    \"    x_mean.append(tmp1)\\n\",\n    \"    x_std.append(tmp2)\\n\",\n    \"\\n\",\n    \"    tmp1, tmp2 = prd_mdls['linear_expansion'].predict(tmp_fps)\\n\",\n    \"    y_mean.append(tmp1)\\n\",\n    \"    y_std.append(tmp2)\\n\",\n    \"\\n\",\n    \"    r_std.append([np.sqrt(x_std[-1][i]**2 + y_std[-1][i]**2) for i in range(len(x_std[-1]))])\\n\",\n    \"\\n\",\n    \"# flatten the list for max/min calculation\\n\",\n    \"flat_list = [item for sublist in r_std for item in sublist]\\n\",\n    \"print('Range of std. dev.: (%.4f,%.4f)' % (min(flat_list),max(flat_list)))\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 21,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 8.24 s, sys: 149 ms, total: 8.39 s\\n\",\n      \"Wall time: 8.66 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"import os\\n\",\n    \"\\n\",\n    \"# prepare a folder to save all the figures\\n\",\n    \"ini_dir = 'output/演習22/iQSPRV_case1_prd/'\\n\",\n    \"if not os.path.exists(ini_dir):\\n\",\n    \"    os.makedirs(ini_dir)\\n\",\n    \"\\n\",\n    \"flat_list = np.asarray([item for sublist in r_std for item in sublist])\\n\",\n    \"s_max, s_min = max(flat_list), min(flat_list)\\n\",\n    \"flat_list = np.concatenate((data['thermal_conductivity'],\\n\",\n    \"    np.asarray([item for sublist in x_mean for item in sublist])))\\n\",\n    \"x_max, x_min = max(max(flat_list), 0.5), min(flat_list)\\n\",\n    \"flat_list = np.concatenate((data['linear_expansion'],\\n\",\n    \"    np.asarray([item for sublist in y_mean for item in sublist])))\\n\",\n    \"y_max, y_min = max(flat_list), min(flat_list)\\n\",\n    \"tmp_beta = iqspr_results_reorder['beta']\\n\",\n    \"\\n\",\n    \"for i in range(len(r_std)):\\n\",\n    \"    dot_size = 45*((np.asarray(r_std[i])-s_min)/(s_max-s_min)) + 5\\n\",\n    \"\\n\",\n    \"    _ = plt.figure(figsize=(5,5))\\n\",\n    \"    rectangle = plt.Rectangle((0.24,0),0.16,0.00015,fc='y',alpha=0.1)\\n\",\n    \"    _ = plt.gca().add_patch(rectangle)\\n\",\n    \"    _ = plt.scatter(data['thermal_conductivity'], data['linear_expansion'],s=3, c='b', alpha=0.2)\\n\",\n    \"    _ = plt.scatter(x_mean[i], y_mean[i],s=dot_size, c='r', alpha=0.5)\\n\",\n    \"    _ = plt.title('Step: %i (beta = %.3f, %.3f)' % (i,tmp_beta.iloc[i,0],tmp_beta.iloc[i,1]))\\n\",\n    \"    _ = plt.xlim(x_min,x_max)\\n\",\n    \"    _ = plt.ylim(y_min,y_max)\\n\",\n    \"    _ = plt.xlabel('thermal_conductivity')\\n\",\n    \"    _ = plt.ylabel('linear_expansion')\\n\",\n    \"    #plt.show()\\n\",\n    \"    _ = plt.savefig(ini_dir+'Step_%02i.png' % i, dpi = 500)\\n\",\n    \"    _ = plt.close()\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"iQSPRから提案した分子構造を描く。\\n\",\n    \"\\n\",\n    \"[実行に数分かかる。]\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 22,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 432x288 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# extract all design candidates by removing some burn-in samples (user should remove all burn-in for a fully long iQSPR run)\\n\",\n    \"\\n\",\n    \"n_burn = 20\\n\",\n    \"\\n\",\n    \"# get the unique set of the candidates by converting all SMILES to canonical\\n\",\n    \"fin_cand, idx = np.unique([Chem.MolToSmiles(Chem.MolFromSmiles(x)) for x in np.concatenate(iqspr_results_reorder[\\\"samples\\\"][n_burn:])], return_index=True)\\n\",\n    \"# calculate likelihood and property values of the candidates\\n\",\n    \"fin_like = np.exp(np.concatenate([x.sum(axis=1) for x in iqspr_results_reorder[\\\"loglike\\\"][n_burn:]])[idx])\\n\",\n    \"fin_x_mu = np.concatenate(x_mean[n_burn:])[idx]\\n\",\n    \"fin_x_sig = np.concatenate(x_std[n_burn:])[idx]\\n\",\n    \"fin_y_mu = np.concatenate(y_mean[n_burn:])[idx]\\n\",\n    \"fin_y_sig = np.concatenate(y_std[n_burn:])[idx]\\n\",\n    \"\\n\",\n    \"# check the likelihood distribution of the candidates\\n\",\n    \"# note that many almost zero likelihood cases exist because of the continuous redrawing from the reservoir\\n\",\n    \"_ = plt.hist(fin_like)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 23,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 4.46 s, sys: 156 ms, total: 4.61 s\\n\",\n      \"Wall time: 4.64 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# Draw the molecular structures of the candidates\\n\",\n    \"\\n\",\n    \"# prepare a folder to save all the figures\\n\",\n    \"ini_dir = 'output/演習22/iQSPRV_case1_smiles/'\\n\",\n    \"os.makedirs(ini_dir, exist_ok=True)\\n\",\n    \"\\n\",\n    \"n_total = 25 # plot the top 25 candidates with the highest likelihood\\n\",\n    \"n_S = 25 # each plot contains only 25 molecules\\n\",\n    \"idx = np.argsort(fin_like)[::-1][:n_total] # sort the candidates by likelihood values\\n\",\n    \"\\n\",\n    \"for i in range(0, n_total, n_S):\\n\",\n    \"    fig, ax = plt.subplots(5, 5)\\n\",\n    \"    fig.set_size_inches(20, 20)\\n\",\n    \"    fig.set_tight_layout(True)\\n\",\n    \"    for j in range(n_S):\\n\",\n    \"        xaxis = j // 5\\n\",\n    \"        yaxis = j % 5\\n\",\n    \"        try:\\n\",\n    \"            img = Draw.MolToImage(Chem.MolFromSmiles(fin_cand[idx][i+j]))\\n\",\n    \"            ax[xaxis, yaxis].clear()\\n\",\n    \"            ax[xaxis, yaxis].set_frame_on(False)\\n\",\n    \"            ax[xaxis, yaxis].imshow(img)\\n\",\n    \"            ax[xaxis, yaxis].text(1,10,'Thermal cond.: %4.3f W/mK' % (fin_x_mu[idx][i+j]),fontsize=14)\\n\",\n    \"            ax[xaxis, yaxis].text(1,40,'Linear exp.: %6.5f 1/K' % (fin_y_mu[idx][i+j]),fontsize=14)\\n\",\n    \"        except:\\n\",\n    \"            pass\\n\",\n    \"        ax[xaxis, yaxis].set_axis_off()\\n\",\n    \"    fig.savefig(f'{ini_dir}/No_{i}to{i+n_S}.png',dpi = 500)\\n\",\n    \"    plt.close()\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"提案した高分子は硬直の部分多いことは高い熱伝導率と繋がってると考えられる。\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"次は低い熱伝導率と低い線膨張係数を待つ高分子を目指します。尤度を再設定して、もう一回iQSPR-Vを実行する。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 24,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"   thermal_conductivity: mean  thermal_conductivity: std  \\\\\\n\",\n      \"0                    0.228028                   0.050617   \\n\",\n      \"1                    0.109654                   0.050020   \\n\",\n      \"2                    0.169699                   0.050223   \\n\",\n      \"3                    0.205657                   0.050104   \\n\",\n      \"4                    0.233679                   0.051242   \\n\",\n      \"\\n\",\n      \"   linear_expansion: mean  linear_expansion: std  \\n\",\n      \"0                0.000383               0.000053  \\n\",\n      \"1                0.000174               0.000050  \\n\",\n      \"2                0.000228               0.000051  \\n\",\n      \"3                0.000219               0.000050  \\n\",\n      \"4                0.000097               0.000050  \\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"iVBORw0KGgoAAAANSUhEUgAAAaoAAAFcCAYAAACZRPryAAAAOXRFWHRTb2Z0d2FyZQBNYXRwbG90bGliIHZlcnNpb24zLjUuMCwgaHR0cHM6Ly9tYXRwbG90bGliLm9yZy8/fFQqAAAACXBIWXMAAAsTAAALEwEAmpwYAACCqElEQVR4nO29d5hkV3Wv/f6qqtNMT85BoxnlHNBIWEIRMxgL+5rgiwi2kW3MBYx0sQw2MlwsXRNtI6SLwVj4u1eYYGSQjY0NSAgkESQEI4QCypqkyTl2rlrfH2sfVXVNdXdVT/d098x6n+c8NXXOPvvsquk666y1f3stmRlBEARBMF7JjfUAgiAIgmAwwlAFQRAE45owVEEQBMG4JgxVEARBMK4JQxUEQRCMa8JQBUEQBOOaMFRBMI6RdK+kWEMSHNWEoQqOCiRZ2kqSjh+k3T0Vba+uOnZbxTGTVJS0R9Lzkr4h6d2SZo36hxkGktZIWjPW4wiC4VAY6wEEwWGkD/+b/0PgL6oPSjoRuKyi3UD8O/CL9O8pwDHAJcBvAR+R9D/N7LYRG3UQHOWEoQqOJrYAm4Dfl/QhM+urOv42QMB/Aq8ZpJ9vVBsiSQXgD4BbgP8nqdvM/nmkBh4ERzMR+guONj4PzAd+o3KnpCbgrcD9wC8b7dTM+szsVuBdaddNktrqPV/SGyU9JKlT0lZJX5S0cIC2zSnM+C1JayV1S9op6W5Jv17V9vI0x3UscGxV6PK2inavkfQlSc9IOiBpfxrPtZLiPhGMKfEHGBxt/DNwAPeeKvlvwDzckB0KXwDW4sbw5fWcIOlP0riOA/4J+H/AmbjRnFHjlJm45zYF+C5wE/AfwLnAtyRVfrY1wI3AnrTdWLF9o6Ldx4GXAA8Cnwa+CLSn63yhns8RBKOGmcUW2xG/AQasT//+R3weanHF8e/gN/JJwIdT+6ur+rit1v4a1/piandjHeNaCnQDO4GlFftzwB2pH6s6p6Vy7BX7pwGPp77aqo6tAdYMMo7ja+zL4UbKgJeO9f9hbEfvFh5VcDTyeSCPzykh6VhgBfBlM+sYgf43pNc5dbR9C9AMfNrM1mQ7zawEvA8oVZ9gZt1mtr7G/j3A/8W9sPMbGbCZPV9jXwn3qAB+rZH+gmAkCUMVHHWY2YPAY8AfpPmXt+G/hUMN+2Uou1QdbV+SXu+rPmBmq4AXal5AOj3J5VeleS1Lc1GfTE0WNTRgaZakj0t6NM1PZf09NJz+gmAkCdVfcLTyeeD/AK8Cfh94yMweHqG+MxHEtjraTkuvWwY4vhkXQryIpF8Bvo//fr+Hz0/txb2vc3CZfEu9g5U0HfgZsAz4KT5PthMPj04H/mcj/QXBSBOGKjha+SLwCeAfcG/hf49Ep8lDuzS9fbCOU/ak13nUVhvOr7Hvg0AbcIWZ3Vt1/etxQ9UIb8ON1I1mdkNVfxfihioIxowI/QVHJWa2G/g6sBhXAY7UmqergSX4eq176mj/8/R6WfUBScfhi4mrOQHYWW2kBuonUcTn5WpxQnq9o4H+guCwEYYqOJr5IPBa4NfMbN+hdCSpIOmPgM/gc1N/YmZddZz6ZaAXuEbS0or+csDfUPs3ugaYKemsqjH8IQOLHnYAcwZY27UmvV5e1d+5wPVDfYAgGG0i9BcctZjZOmDdME59TYVRmYx7UJcAC/BQ3v8ws9vrHMMaSe/HRRAPS7o99fFr+PzQo8BZVafdnI7/SNK/pPbLgYtxL/G3a1zqe7gS8DuSfoBL4h8xs2/ic1LvA26WdAXwLHAivij6X4Gr6vksQTBahKEKgsb5rbSV8LDhNlyEcDfwFTPb2UhnZnaTpE24sbga2AfcCfwZ8JUa7b8j6Tdxj/AqPKz3U+AKfNFwLUP1Ydzw/SbwMjwM+AXgm2a2UdIl+KLfi3Ej+BSeZeNuwlAFY4zMooJAEARBMH6JOaogCIJgXBOGKgiCIBjXhKEKgiAIxjVhqIIgCIJxzZgZKknvkrRaUleqe3PJEO3PlHRfymu2QdKHJKmqzWWpr66UA+0dNfp5vaQnUg2fJyS9dpBr/kXKefZ3Vfsl6QZJG9N47pV0eqPfQRAEQTA0YyJPl3QVnpX5XcCP0uu3JZ2W1rZUt5+K1935Ab4W5GS85MIBUhJOScuAb+HZo38Hl9l+VtI2M7sjtbkQuB34S3x9yOuAr0l6WUpUWnnNXwH+CF/HUs2fAX+KS4mfBj4EfFfSyUMtHJ09e7YtXbp0sCZBEAQAPPTQQ9vNrJ4s/APyqoteZdt3b2/suk8+dKeZvepQrjuSjIk8XdKDwKNm9kcV+54Fvm5mB62El/ROPC/bPDPrTPs+CLwTr8tjkj4BvM7MTqw47x+B083swvT+dmCmma2oaHM3sM3M3lSxbxqe2uaPcCP0uJm9Ox0TsBH4OzP7SNrXBmwF3mtm/zDYZ1++fLmtXLmy3q8qCIKjGEkPmdnyQ+lj+WnL7WdfbOyek1t+6NcdSQ576E9SM3AecFfVobuAiwY47ULgh5mRStyJZ6leWtGmus87geWpzPhgbaqveytuNL9fYyzL8EShL/aTxvWDQcYfBEEQDJOxmKOaja+Kry5rsIXamaJJ+2u1z44N1qaQrjlYmxevm/K1nQD8r0HGUnn9mv1UIuntklZKWrltWz2VH4IgCIKMsVT9VcccVWPfUO2r9w+3jQFIOhn4KPAWM+sZZCyD9nNQQ7NbzWy5mS2fM+eQws1BEARHHWNhqLbjucmqvY+5DF48rlZ7Ks4ZqE0fnjl6sDZZHxfi3tfjkvok9eFlDt6V3rekPmhw/EEQBGOHGtzGGYfdUCVP5SFgRdWhFcD9A5z2AHCJpNaq9hsplyh4AHhFjT5XmllvRZvBrvsN4Ey8Smq2rQS+mv7dA6zGjVWlIKMVz5490PiDIAjGDGtwG2+MVfb0m4AvSvop8GPgHbgw4nMAkj4GXGBmv5rafwWXlN8m6cPAScD78Yqk2ff6OeDdkm7Gq7a+DJePv6jmwyXxP0hVUP8Nr0V0BS5lz4rp7a4cqKQDeJG6xyv23Qx8QNJTwDN4Fuv91Mh0HQRBEBwaYzJHlWr1vAe/wf8CNxRXmtna1GQBcHxF+z24B7MQ93A+g6+fuqmizWrgSrwM+C+ADwDXZmuoUpv7gTcCb8XXR/0ecFX1Gqo6+Ot07c+k8SwAXnmoxfeCIAgmEo0kbpC0NCVQqN6GXK8VZT4OM7GOKjhS2Y3HxbuBxfhTZeRoOzRGah3VT7/U2D0nf97Q102JG75E/8QNvw8MlLhhKf4n8irgkYpDO4cSr8XfURAEh8xufAJ4D65eehQvE9wIRXwSOBgFRkdMcR1wm5l93syeNLNrgE14IobB2GFmmyu2If/bw1AFQXDIrAHagCnpdU7a1zvwKS9iwPPA94Dv47H0rtEY5FHMSIsphpm4IeNfJW2V9GNJtapRH0QYqiAIDplefBV/Rg4opW0oNgNPAtNxA7eb2gk2g8PK7CxJQdreXn2cxhM37AfeC7wB1xN8D7hd0u8MNZixUv0FQXAEMQv4GXAM0ALsxO9kLXWcux6YStnQzcATZ3bi3lkwJmyvc26skcQH20lJxBMrJc3Gk3x/abCLhEcVBMGwMbx8wNN4KYN78fUaM/AFifXQRH/Py/C7Xb5282B8MJzEDbV4EDhxqEZhqIIgGDa7gOfwkN3Z+NqQqcBZQOsg51VyLO497cfnprYCS4DmkR5sMGIMM3FDLc7BBRiDEqG/IAiGzU48vJcJxdpwg7MfmFlnHzOAl+K65S7gNDyEGIwgo5MWqaHEDZLeik9nPow70b8J/DHw50NdKAxVEATDZhIuR8/IVGONekMzqd+wBY0xWmmRzOx2SbPwxA0LgMcZJHFD4oO4E13Eo8R/YGaDzk9BGKogCA6BObgkfRtunDrxu1D7WA4qOGyY2WeBzw5w7Oqq918AvjCc64ShCoJg2DQBF+Cz5/twpd+sMR1RcCQShioIgkOiCU+ZFASjRRiqIAiCI5lxWmOqEcJQBUEwYenAUzXtwsOOS6lvkfHRxkRPPR7rqIIgmJD04qtFN+IOw1o8O0ZxLAcVjAphqIIgmJBsx9ddzcC9qFm4oGP3GI4pGB3CUAVBMCEpcvANTIRHdSQSc1RBEBwWSvhcyUjl8JuZ+uvGParO1Pf0Eer/iCLEFEEQBANj+PzRc3gWi4XAKRx6Lr9JeEGkx4G96f3yEej3SGSiiynCUAVBMKpsBn5JuYDRJtxgvWQE+p4DXIYLK5qZ8I5DMAAxRxUEwajyAp5RvYAbkll4hvTuijaGl7HfipcLaYQc/RPjBkce4VEFQdAQhntEmeEZijwHV/oV5adkw8N36yuOn4bnDAwCGEOPStK7JK2W1CXpIUmXDNH+TEn3SeqUtEHShySpqs1lqa8uSaskvaNGP6+X9ISk7vT62qrjfyzpUUl70/aApFdXtblNklVtPzmU7yMIJgK7gB/iNcR/TH1S8GNxL6kTD9FtxVMuNaXjO4B1eMW9ubjH9URqHwQwRoZK0lXALcBHgXPxQlvflrRkgPZTge/iuS/PB64F3gdcV9FmGfCt1Ne5wMeAT0t6fUWbC4HbgS/jBbu+DHxN0ksrLrcer4/yEnxu9vvANySdVTWsu/E09tl2ZYNfQxBMKLrwBbU5fG6I9L57wDOc2fgPKZf6OBkXU2Tspb8AIo97XI2GAINBUIPbOGOsQn/XAbeZ2efT+2skvQp4J3B9jfZvwUU9bzWzTuBxSacC10m6ycwML9q10cyuSec8mQzQe4E70r73APeY2UfS+49IuiLtfxOAmf171bU/IOmdwIXAoxX7u81s8zA+exBMSHbja5Ta0vs2ygts5w1xbuYt1aKd/jWtMhl7W+3mwTCY6Kq/w+5RSWrGVaV3VR26C7hogNMuBH6YjFTGnbjSdWlFm+o+7wSWS2oaok3N60rKS3oj/luqLq98saStkp6R9HlJA/0Og+CIIEftG96h3kRm40ZsK55tYhtebW/yIfYbHDmMhUeVqVS3VO3fArxigHPm03+uNWufHVudXu+u0aaQrrkptal13fmVOySdCTwAtOJVtV9rZo9VNPkO8K/pukuBDwPfl3SemR0UCZH0duDtAEuW1IxuBsG4ZwYe1tiFP7ntS+9nHGK/OTxWvxMPDbYTi3aD/oyl6q/64Uw19g3Vvnr/cNtU73san8OaDrwe+IKky83scQAz+2pF28ckPYSvaXw1bsD6D9zsVuBWgOXLl090Lzw4SsmKJK7CBRALgeMYmZtIDn+aDIJajIWh2o6HuudX7Z/Lwd5OxuYB2lNxzkBt+vDf1WBt+l3XzHrwhfQAKyWdD/wJ8Ie1BmdmGyWtB04cYPxBcEQwCThjrAcRNM44FEg0wmGfo0pG4CFgRdWhFRw8D5TxAHCJpNaq9hvxcjRZm+rQ4QpgpZn1VrRp5LoZ2ZrCmkiaDSzCw4tBMCHpAZ7FfwxPEvLwIwlrcBtvjNU6qpuAqyW9TdKpkm7BIwmfA5D0MUnfq2j/FbxG2m2SzpD0OuD9QKb4I527WNLNqc+3AVcDf1vRzy3AyyVdL+kUSdcDVwA3Zw0kfVzSJZKWprVbHwMux6XsSGqX9LeSLkxtLge+ic8F/9vIfUVBcPgo4U+Pq/Ab1XrgJ7jxCoKxZkzmqMzsdkmzgA/ia5AeB640s7WpyQJc+JO13yNpBfAZYCU+n/tJ3OBlbVZLuhL4FC5z3whca2Z3VLS5P6n4PgzcCDwPXGVmD1YMbz7wpfS6B5ek/7qZ3ZmOF4Ezgd/D57A2AfcAbzCzfYf41QTBmLAHl5ln8fRW/MlrB/5jHA904oKLHL4oOJLPHj2MmZjCzD4LfHaAY1fX2PcYcOkQfd7HELkuzezrwNcHOX7QtauOdwK/NlibIJho1KrhlMMzSQyG4U+NmVpv6giPK2M77vFloakW4KWEhP1oIXL9BUHANPxm0IkvtO3BM07swhVIs4FjKKc9Ag8XPpKOK70/kZFXFBmefb0d9/TAvb/ngLNH+FpHLCGmCIJgotOE5yYr4Qtu9+MGYjNutJ7BY+6VyWV34HHvuXhKpTm48Rjp1Ed9uAGtVFK142HAYGgaFVKMRzFFeFRBEAA+4XoJbph2Ag9TXtvUhs9Z7cYr64Iv+K30sLKn3k5GNiRXwA1TBy6Pz65dvc4kOHIJjyoIghcRPv/TgXtGHVXHKnPyTaX/HFbmbU2iP4Ybrz6Gh/C1W124sdyKG8jjBzspOKIIjyoIgn5sBB7D11K9gM9NLcQNxrSKdjPxxYMbKad3OZH+hmovPo91AH8qPolycs5GmI5X8t2V+pnB2Ny8MuVhAf/8TYM3D0aIMFRBELxIN26kFuDhvmdxg1UALqb/qvcccBawhLLqb0rF8SKu1Mvj81d9uChiKuXwYSM0M3SW9tEkUx5mnmMrrjys9iCDkScMVRAEL3IA94yyTM4zcHHFCZRrUFUiBk5Kuw83fNl5BfzmvoXhGaqxpJbycBeelfr0sRpUvYzTGlONEHNUQRC8SCv9lV9ZEcPhrI8qcLCCrMTEDJfVUh5OZuIoD0P1FwTBEcMkYBmesqUZF0vMpLY3NRTtlOtMTcXDg+DzXRONgZSHi8dsREcXYaiCIOjHybiB2Y3flGcz/BvF2XjewM34/NLS1Gf25D5RQjqZ8vBn+BozcMN13JiN6OgiDFUQBP0Q7kXNxI3JXnyuaTIHr4/qw+e1WqldXqCAG6el6b3h8zrP42KLY3Al4ES4EU3HlYe7KSsP82M4nqOJifD3EQTBGJAJCF6o2HcKHhoEF0U8gs87Ge6JDeVhbACewL20HLAunTvuBQmJZsqJeycUE1xMEYYqCIKa7MQNyVz8PlfEperzcE/iF/i6qibcWD2Fe2HTB+lzbTqe3Xhm4aHBUwjvZDQZjwKJRpgoIeIgCA4ze3AjlD2M5/EbRgc+57SLcraJHG58hlLB5eh/0zSOCPV0MMqEoQqCoCZT6J8iKRNAbMRFBc8CP8e9LnCPq22IPpfhBrALzym4HZ+/ihtRMBgR+guCoCaz8DDfFtybKqb3G/BsFD3p2FN46G8+Q8vY5+MF457HBRqnAseOwtiDI4swVEEQ1CQHnIuH+DpxOfYBvJRHN656m4Z7VEuAc6jvhrKA8VM1+KhhgsdWw1AFQTAgWdn3jKdxDyrL3TcZT0x7AhMz48TRQogpgiA4KujAiyWeiM9d5fEwYCuDK/0aIauDtRIXbByuG2wn/lm20H9eLhgcSe+StFpSl6SHJF1S53knStonaf/QrcNQBUFQJ114BOlEPEvD4orXkYgsbQcewMUWHXim8nWDnjE4pdTXPgY3eNuAH+BZ438O/Bg3XMHgSLoKuAX4KB4lvh/4tqQlQ5zXDHwV/9rrIgxVEAR10Y57USXcg1qEe1PDyQNYi+fxnIBT8JDibHw+rDTYSQNwAPghfuf8Ea5S7KnRzoDH8c82B18z1otnzwiG5DrgNjP7vJk9aWbXAJuAdw5x3ieAR4Gv1XuhMTNUjbqMks6UdJ+kTkkbJH1IkqraXJb66pK0StI7avTzeklPSOpOr6+tOv7Hkh6VtDdtD0h6dVUbSbpB0sY0nnslTZTF9UHQMHtwj2Nfet2EeyJLKJerP1S66T9pnseNxnDCf4/jBm5u2nYBq2q0603Xrc6KvmsY1xzXqMFtqO7cKzoPuKvq0F3ARYOc92rgN4BrGxn+mBiqRl1GSVOB7+Ih5PPxD/k+3KJnbZYB30p9nQt8DPi0pNdXtLkQuB34Mi5S+jLwNUkvrbjceuDPcRXtcuD7wDcknVXR5s+APwWuSePZCnxXUmXduCA4ItgP/CS9LsIl6q3AJXjo71DDfj24SGM9PjeVTVrsxNWBtTJWdOHe1sP4uq5Kr6sXNzSVpUmm4ca1miY8SW5lqG8/I2d8JzCzJa2s2N5efRz/r9lStX8LvgrhICQtAD4P/K6Z7WtkMGOl+nvRZUzvr5H0KtxlvL5G+7fgf09vNbNO4HFJpwLXSbrJzAx4B7AxuZ8ATyYD9F7gjrTvPcA9ZvaR9P4jkq5I+98EYGb/XnXtD0h6J3Ah8Gjy4t4DfNzM7gCQ9FbcWL0Z+IfhfCFBMJ4o4WKGbOujfPNeiP+xjwSGzwvtwb2zbnyO6HR87uvUGud043NZvXgi3E24AT07Hc/jBqiXshKxm/7VhzMEnIkbyOzOOYVyEt0jhWF4pdvNbPkwutYgl/sS8Pdm9pNGB3PYPaphuowXAj9MRirjTvw3s7SiTXWfdwLLJTUN0abmdSXlJb0RD2Hfn3Yvw58YXuwnjesHg4w/CCYUz+Deyn78EflJXOBQyUgo8vbh3s9sPKvFWWk7Bb9JNNc4ZzPuhc3Cf5jzcK8q88Ry6fwdeKbznbjHdMIAY5iBZ0U/D7gAv0n04p97DxNf2j1KbMfXgFd7T3M52MvKeDnwl5L6JPUB/x8wOb2v9tj6MRYe1WAu4ysGOGc+Hhmobp8dW51e767RJquqvSm1GdJVlXQm/tDWiv/9v9bMHqu4XuX1K/tZVGvw6T/h7QBLlgwqiAmCMacbWIMbAOFPZhvxH+BJ+M1/Km4kBuujxNAplWoJJVoYPEFtJ7VvXJWy8kV4CGZz6mshg4+3Miv687ihBjdSxzAyIc4jCTPrkfQQsIL+oogVlCNY1ZxZ9f63gA/gzwcbBrveWC74bcRlHKh99f7htqne9zQ+hzUdeD3wBUmXm9njDfbjDc1uBW4FWL58eTygBeOaLNFs9uOZgnsoO3EBxWzgNGrfuIt4GY/sqXIW7iG11mgLbvDacM9qCm7g+hi8lMYc3JiUcO+pCw/xVYf2ZqStEQ7gRiorQ2J4mZOF9F/43AhF/PtYj38Py/As80cANwFflPRTPGL7Dvyr+hyApI8BF5jZrwJU3T+RtBwoVe+vxVgYquG4jJsHaE/FOQO16cOjAIO16XddM+vB52oBVko6H/gT4A9TH6R+Kkv1DDb+IJgwTMK9j8x4lPAb7G/gf+SV3s5m/OY+L52zFv9RZKVBduKG6yUDXCuHK5Z+iRvBltR26gDtwW/yJ+M/UEvnnEdjN7PduOHow+fCsvm3jjTubE5EuBHcy/AN1ZP4erBplIUpv8JhNlaj4A6a2e2SZgEfxHUvjwNXmtna1GQBcPxIXOuwG6phuowPAJ+Q1GpmXRXtN+JRiqzNa6rOWwGsNLPeijYrgL+panM/g5OjXMB0Nf77XIEvz0BSJoJ63xD9BMG4R7hs9he48RAe8ptP+X7XB3wTvzNlN/bfwp8IZ1S0m4ELL/oY+GbTDrw0tckz9D1V+HxTlhi3jcZqWe0EHsR/0Dk85nQWHuJro5wlPhtHL4OHDQeji/6GO2M1h89QZZ9nVPo2+yzw2QGOXT3EubcBt9VznbEK/TXkMgJfAf4SuE3Sh/HfzfuBG5Pij3TuuyXdjCvvXgZcTVLzJW4BfiDpeuDfgNcCVwAXZw0kfRz4L/zvawqu5LsceDWAmVm6xgckPYVHCj6IPyx95ZC/mSAYB0zGlUFd+E2iOo/f07ghO55y+O0/0jm9lEUQxXR+PaqtRm9GzanfHtzjq9dpeBb/fJPT+9a0bzFukJbha64qM8YfStiPqrEV8O8rqJ+GDZWky/Cb/xIODj1bhXEZkEZdRjPbI2kF8BlcSboL+CRu8LI2qyVdCXwKl7lvBK7NJOSpzf1Jxfdh4EY81H2VmT1YMbz5uIxyPi76eRT4dTO7s6LNX+MPX5/BHxofBF7Z6NqAIBhvGP2N00BiiNV4eC4zQK34TXka5XVNwp/eTmN05MVrcYNZwo3O2QwcMuzF5xx6ca+v0psp4MauhBunk/Ef/378889g+OOfhD/t7seNoOE3lcgO0BgNGSpJ/wP4e/z/+ll87rNfk3r7atRlTKq7S4fo8z4GDodnbb4OfH2Q4wddu0YbA25IWxAcERzAvaQsP95c/OZfGcrLmJPaZpTwm/ASvL7UWtxwncLgwojhshOf15qF38QO4LkBL+XgMGA3/iR5gHKob2cam/Cn3vkV5wlXUU0fgXEKV2X9Ag+BCv9+Fo9A30cTjXpUf4qHt/4gCQ6CIDgCMHzdVDc+L7ULj2lvwMUOp1S1PxM3DKvwuZ5OfJ4p81QaVds1ytZ03ewGNhkf937cq6tkXRpfZjDb8TRQWyiXMam1sHikaMfnITrSeFsGbz7y1JkWaTzTqKFaBPy/MFJBcGTRgXtROVwRly123I4rhubR3/hMwieAn8DDK8cxQvKuOmmhLKPPMGqLKvbg481oxb2al6Z/T6pxzkgjynNiY8FEXxPTaOj1IfxvMgiCI4gCfjM9gM9N7cELJG7Dw3j3cXBmikm4t/VreOmPw5nmJssBmFUfzlbt11LnzaactQLca2zBQ3uHw0gFh06jf1vXAu+RNOhcURAEE4sWyrn29uJhvxZcsj0VN15rGuivhIsyhlOiox5acYXhIlz9dzouMa/FIsoy+Sw8eBZR42gi0Wjo75v43+09kjo4OBu+mdmxIzKyIAgOK6fgHsZaXNWX5dC7APc+dtfZz3Z8DijzXM5g8JpVpXTOHnx+KcsKMRSTqG9uqQn/DHvwcOFUxmCeKDgkGjVU32PihzuDIBiA53C1XuZJZaG0/Qwe87fU5gAuypiatm58vuAyakvdDXgET8TZktrPwxccj6THk2P0BR7jmqNJTFGPdDsIgonJGjy9zyJcvfcYfoN/Apd9DxQq6cWNzTbc63oBz0AOZc9lD7UN1W7cSM2r2Lcl7T9C8uGNCya6dxFh2iAIgP6LeKfg+fMm41L0C6hdcgNc/r2dcjVdwxdZZgykxgP3oKof9rNMF0GQ0bChSiXhvy5pW6ojslXSv6TSGEEQTCC68aSp9+FpWmbi3kyWqQF80e9gN4rNlDNCTMHXJW3C5e478PDhQGG3LLSYpRrKFg4PN7decGTSaGaK8/G/6U48tVeWjfw3gVdLutTMHhrxUQZBMOKU8PmjvZQ9nudwgcJOfM7p5bgUfDCm4B5Vc+rnJFzA0JzOXcrgCWlPwaXwSmM6hcGzpwdHH42KKT6G5+X71cq8dpKm4EULPwa8cuSGFwTBaLEX93h2pte9eBhvBq7UOw6flxpqHr4VN3g9+FzTPLy0wMI6x5GVzO7AlXxDFVsMjj4aNVS/AvxudfJVM9sn6RPAF0ZsZEEQjCqZLHwrHhrJajttwp82l9XRx1Z8Pup8XDCxHZey12ukMtoYWQNVoiyPj4l4ji7VH0OLRya6uCQIjhqm4R7UM/hNvQn3aGbgxmcpQxuPrBbO5PS6CDdWmZEYSbrTuDam651MueBhJdvwsE/2mc6gv6rwaGSi35gbfdh4EPiLFOp7EUmTgT/H1a1BEEwAunHvpwm/EbThT65ZiY96E3rWugkO9gDfQ1k8US9Z0txNuCE1PAdhdV2dLuDnuJGcgxven3Nw+qdgYtGoR/UXwL3AWkn/if/dzMeLCrbhBQaDIJgA7MfnoDJPZRq+YHcabqjqSaJ6LP70mhm4nXgJi1pS9k7c09me2p6Ae22DGTXDjdFOPMy4KO1vw43SRtyzytiDh/0yb66ZcimPyOs3cWl0we9PJf0K8CE8F+VM/G/o+8BfpZpRQRBMAFrxG/pFlNc+ZWuejsNDaJM4uGxGJbPx9VbPUc5eMVAW9UdwQzgXT2X0BK76Gyi9Uimdsxk3cr9MYx6s2m6t9VrG2JUyD0aGhv//zOxR4LdHYSxBEBxGpuIe0U/wcNwy3HDsS/tm4saiKb0244boGPrPGcxP22B04OuzMqNUSNdaz8CGagvuMc3Hjc0OPIx3WRpPLwdL52ekz7U99X8A9wyHW0r+iOEoE1MEQXAEcTK+hmkmfmPPUZaaz0z//jG+tqkdD7910T/cVg953IvqxQ0f6f1ggoudlMN1wjOkP0LZeJ3Pweut8njpkXW4YTs2bUfzjc6Y+GKKIf//JP1fPKy3Ov17MMzM/nBkhhYEweFgEh7CEx7uy4zKdjwcOIXyjW4bnmrpBAZOi1RNL/A0Xi34Ydwrm48bw8FKsk/FVYUZTfic1ssZ3MC14PWxTqxzfMH4p54HjSuAW9K/X87gxnmiG+4gmJCUrPzkvAoPqTXjN+upuAR9Gz7fdDIwNYWC8viap014eKwztT099bED9042pP6mUlbd1cszqf9z8HDeM7jxu5TBM1DMT9feStl4nkKU6DgaGdJQmdmyin8vHdXRBEHQEGae9fx5/EaeVeidl94/SFl6PhWfK3oQuNigLRmrU/A5n0fxvo7F56l+gRuofOqvhIfd9lG/N1VKfcxM41iEz0n14NL4wWjCy8Vvx8ON0+s4JzgyGbNF25LeJWm1pC5JD0m6ZIj2Z0q6T1KnpA2SPiRJVW0uS311SVol6R01+nm9pCckdafX11Ydv17SzyTtTYl3vynpjKo2t0myqi3WkAWHnc24Gm4K7i09havvCrhCTrjxmY4bl3bKGSkySgY5g80GCw0uMlcCnprOm09Z2HBM2tdZ5/iUrltZ6bdI/XNGhXT9pYSROiTU4DbOaMhQSbpI0m9UvJ8l6Z8lPSbpbyXV9aAl6So8nPhRvEba/cC3JS0ZoP1U4Lv47+V84FrgfcB1FW2WAd9KfZ2L5x38tKTXV7S5ELgd+DIeifgy8DVJL6243OXAZ/Hf6svxB9O7JVWXx7kbFx1l25X1fPZgfGMG+ww6JkgQex1+Ay/g95d2PFzXm44PNJGe7Ssa3AX8MJ23H1/r1GQeNpyNG5q5+NxSPl0nE0QU8RDhw3jIsXqRsPD5rO24cTuAr3U6YZifNxge1uA23mhUDPNxvMrvf6b3f4PfoO8G3on/Df5VHf1cB9xmZp9P76+R9KrUx/U12r8Fn/N9q5l1Ao9LOhW4TtJNZmbAO4CNZnZNOufJZIDeC9yR9r0HuMfMPpLef0TSFWn/mwDM7NcqLyzpd9PnehnwzYpD3Wa2uY7PGkwQOgweLvnNFIN5gtNzUBiHT5gZBcq1m5rweaa1+M0mMxrHUC7z3oEbjzbgKXNV30OUM55nqZN2pXaz8afDbF4oj6vxtuAhvMfTvyfjc0kb8ISgmSEDWILPb63Dn4xPo3bqoyAYiEZDf6cCKwEkNeHrqf7EzF4PfAB481AdSGrG1wjeVXXoLtyLqcWFwA+Tkcq4E58HXlrRprrPO4HlaayDtRnouuBRlRz+263k4lSL6xlJn5c0d5A+ggnA4yX3RGYLZudcAPDCeHy8rGAp7gV14BkmpuChgn3p/Xl4JvOplBV9Z+Ay77W4F7QfNz7Hp3ZrcQ/oGLxg4m+mc5bgntU+PNx4N26Y5uGe3OzUV2VYEdzgLcDnm84njFTQOI16VO14NQDwv+HJlL2rn+N/y0ORRRO2VO3fArxigHPm4xGG6vbZsdXp9e4abQrpmlm6p1rXHWy94i34vPIDFfu+A/xruu5S4MPA9yWdZ2bd1R1IejvwdoAlS+r5ioLDTY/5k8icCu9pGj5vU08W8bFiluACK4fdzsZ/hCX882QhwOXysGYRNzI9uHpvCu4ZZT+OxbjR+610vDe9n4s/obbi3tEG/Ac5CX9azL62PG4gS0TW8mDkaNRQbcB/Cz8Efh143My2pmMzaCz3Y/WzqmrsG6p99f7htql5XUk3ARcDF5vZi3k0zeyrFc0ek/QQ/iD6atyA9R+42a3ArQDLly8f58/oRydZItY+K4f6uhm4Mu14Yo76Z3foMTcqeyj/AM4y/4yP4ArB3XgILpt43Ub5Sey/UU6bdBqe/HUTbvha8O9lJu59ZaHCZfhk7jbcuD2FG75TcOMWBIdCo4bqn4GPSrocn5v6y4pjL8H/bodiO/5gV+3FzOVgbycjqyRc3Z6KcwZq04fPEw/W5qDrSvoU8EbgCjNbNcC4ADCzjZLWE2sMJyw5wUmCxw1ak+dRApaNsFtQMthgvpC1gN/g54zwNTbiYY85+JNjH/Bzg7xceHEibrBW4bH8Zyl7VMfioofnU7t24BI8NFg0eIz+mc9/Rd7PpHReH27cm3Gj1YnPWY3jab4jn3Gq5GuERn8iNwCfwB+sPg7cVHHsbOBrQ3VgZj34/O2KqkMrcMVeLR4ALpHUWtV+I66+zdpUhw5XACvNrLeizZDXlXQLPt/2cjN7arDPk9rPxpeIbBqqbTB+WZyDC3IwV7BEcFGuvDB2pFiVbvbg4beVwLbSICcMg124d/hLg0fMXx8Gdlt50e6C1G4t7l1diE/UzqVcDNGS718A5ph7WS/gntrqdN5S8/mri3HDNgM3Tr2417WbJE4JxpSjSvWXwl8fGeDYaxro6ibgi5J+iqcSewce6v4cgKSPAReY2a+m9l/BvbfbJH0YFym9H7gxKf5I575b0s3AP+AqvatJar7ELcAPJF0P/BvwWjzzxsVZA0mfAX4XeA2wS1Lmge03s/2S2nGDfQdumJbiUvitqc9gAjNTvo0GRfMb/BzcuwE3BmsZODFro/QZ7DH4L8rejeEih834/NUTuFIwW+O0APemmtLWkdr3AjJokntoRTy2/QyuLuzGP89y3PNaBTyZ/g3l8MIEf5gPxgFjkqvRzG6XNAv4IP47eRy40szWpiYLqKgWYGZ7JK0APoM/hO4CPkmFR5dyEV4JfAqXuW8ErjWzOyra3C/pjbj44UY8wnGVmT1YMbx3pdfvVQ37RtxAFYEzgd/DIymbgHuAN5hZdR23IHgR42CRQZ76CxTWw+Ml/8M/gD85rZILJBbhhuon5mHOAm602nBDso+yvHU3bri+n/pcaOU4+zHpc2xJ55yAPzVuxQ3bZHxOKoerq15OfXWtgmAwGjJUSVp+Pe6lLOHgtFtmZnX1aWafxRfW1jp2dY19j+HpwQbr8z58rmywNl8Hvj7I8UEfAJNE/tcGaxMEtSgIFpgbjFnmRms3/tRTLx3m3k0T7i3lKv5aNxQ99p5V5+0G5lsqFS9/3457XZ3p/FnAJsHcNK59+Li2yQ1OJpc13Kj24vNqC/GJ35dRLpg4O/W3DvfYZuOLhIPgUGnUo/ob4I+Bb+PqtoOk2EEwkbAkS99bcu9idq4clhsNTpGH0zbiXsdJwKI6r7ex5Pn4wA3HLPyprCDYWoJvUE4euw43MM/jBmeOeUjzBdy7moKH7VYDLzE3Oh14uGA10GawQd7HGbgRuwAXYWS5/l5CeQ5vSrrmHNzwZmmaBks6GxxGJnj8tVFD9dvAX1ZkdgiCCc2zJVhd8nmYPoPpBufl6zdWveZeRhugOs5pFpwpONXSHFED13kc94Iy+fxWg03mob0n8TkpcAOxFzcofbih2gccZ7BbHpKbl4xlJpx4BfCKnEvRO8wN1CJ8rmoDHvqbjhct7MKNYeXYs0znW3CPrhefowpp+vhgPAokGmE4C34fGLJVEEwADhisKfk6JCUJ77YSbC/BvCGyVpZKsLIEvyhB3uCYPFyYhylyCfpWg73mHsccHWyQGk3L1EUqqV5x3iTcG1yIh/IK+HxQDhc89OIe0r50fh++xmoWbpz6cGXeY7hB+v0SrJcbplXAToPT5GHEi/DvqGhuiKo/T5bpPJOkz2BirEELJgaNGqpv4vNE3x+qYRCMd7rNb+qVnlCT6pNT/6IEdxVTmXTBL4se7lqR87VYmwxa5d7abMG5uf7zSY3QYW40dhu0G7QmNUYnKVGsoKkE28yl4y1Al9xQ9OFhuiLudRVwY7If93g6ceO2D/gpHvYzXDRRxJVLf4p7V89a+fhC88W8TRWfqcDBpeGDYCRo1FB9GvgnSSU8U/nO6gZDLY4NgvHCZPlNN8tGYeYhtmlDrC4smhuquUB7aitgXQk25Tzt0rysjzR/lIkNGmVbyddAmfk47wdOLvkPdyYwPwebS76IeDs+15QDCim02JI8ov2413MpLk/vwY1aAZ9HKlGez+rGw3xT5J7YNNzLeiZ9hj48zCd8/ir7Tjal60/BDVvLBJ8XCcYPjRqqLOx3A/2zUlRSb021IBhTWuTZ0X9ZcoFDCTgmN/Q6qiJJAVfRLm/uiRXhoInrnDzk1uiEdslSrSnzsc4RTCnB/vR+L7De4LGSe0mn49dZhRulErBA/u+suu8JuGH6D1wgcSwpJIivh9pirurLJ0O7Iw17He6p/RL/nJlE/RTz7+IXlLOob8HzAF5o/T2uYAyZ4P8PjRqqP2Diz8sFwYsszMPMnM9XtQja6xREHJ+DnxXL3ssm86wWswUq+c2/kOZ0Slb2vBohk5hXZsfoxD2XS5M3+CSuBJyLG5AZ8iwTj+Ghws6Sf65Z8iJtffi6khNwL6kbN0AvxwUhO3EDOL8Eu5JEvYSHR5/CRRQz8PmvDbgXNwk3hPPSGNtxkcY2fP5suHTiKsX9eIh1PpHodriM1k1b0rvw2oAL8OeY95jZDwdoexq+FvY0/LlpI/BV4IaUsWhAGs1McVsj7YNgItAq3xrhvLzf9FeVfD7owhxcnHcP4tQcPFUqpyA6ScNLxdRMCsUlI2p4FotllMUMM80NWgceymvFw3ULDaYLOs29pq3mhmV+6uc4PMvEXtywPYAbotNwj+yneLmQl+LeUc5gs8qZp0t4ePC7uDHKcgtmVNbJGg5daUx9uCHdjM+bNbLmLBhdKgrgvgv4UXr9tqTTzGxdjVN6gC+QMnrhafc+j/+5/Nlg1xqTzBRBMNFpE1yWhzNzblCmVDzqH5PyBXbgXkqjRjAjJzjd4OdyBWEJD+PNr+jPKK9z6sa9j3bcoJyaJO378fmsTbjBWZg8pSIeqtuEPwqfgj/mTsLvIOcaLMq5wX0c6ErGznDj0Srv1/D5q6m4sSpSzvU3XDamPrJ5vcm4wTw+jS8YFzRUANfMngOeq9i1NiU4v2SoCzVsqFKBwDcBJ3PwMgkzsz9stM8gmGh0miv9dqeEsotzcFK+rOxr0cFpW4bD7BxcYrBHHvY6rgTPC5rNDcQu3FDlDJ4xv5kfixuNvTlfY3UMHrprNzdai+VhtJ8l1eMjuOfSixu7SbjhezEfIeWFv3uSkXvQ4BjzxcolXEH4PB5+3Il7bIfyFNxddX5mm3trtA0OPxUFcP+26tBgBXCr+zgBeBU+ZToojaZQOhn4CT5/OhkPUc9M73fh0YcgmPCUzG/eTdReyPtkEQ6U3JCYueJvsnw91UjTJvfMwK/XYl4yIA+cbLA6hfhOFJxgHoZrwefHpqU1YnvwUN4mYJ25ou8luEH7Bm7Qsh/wZHx+aDr+2bJ5oi7cIBbxH/0M3BMr4oZF+HeW5QP8EfArKQTZKHPxEGQmXOnEDWT7YCcFI8lsSSsr3t+a6uq9eJzGC+ACIOl+/M+vBQ/9/cVQgxlOCqWf4pnFD+DFEx/FE7TeiGcjD4IJzbYiPF10Bd1kwWmF/qG9HoOdyUiBG4KpwKbS6BiqSnKCpfKU/eBS+N4i7JMv5M3loMncWOxIW1eap1qUc4N3Di4aaRf80Dy8+AI+gbATnzx4HW4ktlFem5XHPbBeyqWyT6Sc628TLtLI5qr243Ge5cP4nDMp18oy3Ei9hJAUD5vGHxa2m1k9/3XVOg3V2FfNVfgqhrNxm/LneAWKAWnUUJ2Pl+TIcvzlzKwP+L+pJtPNeNmMIJiQHCjBo30ufpiS88W2v+iFC5vLWSGyG/beIpQEk+SexEjXrqqX7K5Qefm84ERzw/QsvqB3W8lv/vvlcvMZuNR9CX4jeAEP+7UDr855fzsM/h2fh3sA/+wFvJ9MaQguqMjmyDJaGH4tKuHhw2NwA9pGKP6GizEqqr/hFMD18Zi9kP75hKQ88I+S/ibZkpoMJ4XSTjMrSdpD/zWMK4EPNdhfEIwrdpT8htic7vqT5DfrvVZeXyWgp+Ty9DZSpoY8nNV8+Mc7E89UMbnoXk2TuddVxMN2q9Ki3T0G+9LdqqPg4b11uPeUKQbBQ2zLKc9PrUkLeSfjRizLwJ7H70iL8fBolvGisvrvblyheChkNbKC8YWZ9UjKCuBWFsxdgdfqq5cc/ueTp5yu8iAaNVRrKFvQp4H/Dnwnvf8N/G8zCCYsBQ5++jT6h5y2JWN2Qd5Da5iHpoar7jsUmuVhjsk5eMLcKC2VCx++icvX58kNzjpcnfdbJZieFjZ3mIsgivhnmI8bvAPJG9uBG6Qn8ZBeN27Yjse9p724t9WHh/2yEvQQZT6OAhoqgCvpd/E/0ccorzH/GPB1Mxu0Ekejhuq7lC3oTcBXJV2M/52ewgDVf4NgojArD81F2FNyEcP+JAaoDOvtNve0puTKEuwdJRc0NI+BsZoieGne1zxlHDCfm5pUgp9beSFvF56JY1cJWvL+OWcJTkxxtV48Ue+jRTg75wb5ZHyuaT/uTR6Ly9jbgLNww9SGL/htSu1y+PxeLUpWzvCeFW40PBQ5qYHvL5tTK5E8y/pPDUaARgvg4nbienxqU/iywM/gxW4HpVFDdT1JdWtm/yKpE58Ym4Qv/Pr8IOcGwbinRXBuM6zr83DfsXlYnO+v/JsCvCB/Bb/xZueOBZaUeJWZ1Zvw4ow/weeesizqzbj6abXBkpKHAw/gc067zMMk+/EbQwfuRW3ChQwbcc/yJFwheAqeCWNG1XimMDBmvtpzC25gHsdDicelvl9inipqKA7gqq4D+B2vCfcsq8cSJEbpb7ORArhm9s/APw/nOo1mpuimoliimX0TjzAEwRHDZMGpg0yMzMnD9JKHALPM5Cfkxyb0t6kET5sn050pWCb3sJrlns8juNeRw1WB7biR6pDPLy2UKwdXldzLEd7PcWnBsgyOlT/6dpFKfOB9Lx3G592K17wqpn83Uw47ZrkEL7Oha3s9hcvXO9P76bgBvpQJn9ZuVJjoee+GtSZP0lQ8DL4IX6z+uJntHcmBBcF4pUlwbpOX3ugsebb1oTKujzR9Bg8X4fslv0kvEqw0+LHBMSlN0r60FmwWHpbskadSmoanSjpDLrzoLboBW48vBl4s/4wqeX/Hp8XGL8XjOHk1Xk8r4xf4vNcx6XqZiKMHH9c+PPw4lC7lMTx0OCu934k/Qb+MSLdzJDKczBQfwkvUtFN+eNmX5IUfHsnBBcF4Ja8UohojzfRTJc+aPj3Nl/2o6Alxm+Q1sExeTn6foK0EhZwbtx24gm+q+Y+3y6Al5/WyZuJGojVNGj1ibgjmyEN2a/D1YouHaaS6UmaMLDQ4A/eIduFzVZ34HMJQKj+j7N1lX38z5ZBlcOTRaGaKG4H/BfwjnvV2Cz6H+ibgRkkFM7thpAcZBKNFKXlFBfkNeyLQY56tfRaeKLbHXBxhOU+tNCfn4o+tuATrl7jXtR4P5fUYPJ+DYslTP50iN3JTcK9sW2oDZZGF5OVGNgEtJQ+79eDhwyU6uOJvLQw3kpk3VUh9TMLDjE14Tp6hwn6kPtbRvyBeKAyPXBr9af4R8Ekze7uZfd/Mfple/whXbry93o4kvUvSakldkh6SNGhiQklnSrpPUqekDZI+JPX/k5Z0WeqrS9IqSe+o0c/rJT0hqTu9vrbq+PWSfiZpr6Rtkr4p6YyqNpJ0g6SNaTz3Sjq93s8ejA/2FWHlAXi4A352AFZ3lTOeN0Kvwfaib72HcTJgllzd98uSCyHWpQKNxbTNkBuDJcC0ZHym4EbsAH7uscAlOZ/TmiIvH3KB4CLBqep/g+jFM7n/DDcweVy2/kydn7lNLs6YjGfHOBXPDvAW3EBdmsY8FErnLsQl8cenz3h2fcM4+tAwtnFGo4ZqGnDnAMe+k44PSUV6+I/iZXLux9PDLxmg/VRcGr8FF/dci9dAua6izTK86vD9qc+PAZ+W9PqKNhcCtwNfxn8rXwa+JqlS2Xs5rmK5CC/T0wfcLakyGfSf4eHPa9J4tgLflTSY4CkYR5QMnux0T2BGAabnYV0P7BhwyWFtOkrwsy54vNu3n3bC/tLB7Q6UYGOfG7M+8zbbS35+ozTLCyJ2yG/6k3Hjc0zOb9prij4/daJ8XdR+4Pm01muJXEBxDB4uO0f9C0Xm0/vZOThBLj3fZ24I+3Cl3mQ83NgiX2O1jvoN9Jm4ZvkALp54KT5fNleNSfuX4T/ydjwcuRz/TEFtrMFtvNFoSPdB/MZ8d41j56fj9dBQenj8oWsS8FYz6wQel3QqcJ2km8zM8MVmG83smnTOk8kAvZfySun3APeYWbbe6yOSrkj73wRgZr9WeeG0SG0PPk/7zeTFvQf4uJndkdq8FTdWbwb+oc7vIBhDOkvuHcxMK3klaMu5oZrdQCqE1Smd96zUz4ESPNcL51SkTt/cB0/2+oNqCQ/TTU5ejAHHF2Bp1S+x02BD0SXys+WZLyoFDKfkPAT3EO7ZnJhzj6XZ3BidLBdPXJBzJeAXi9CZzp+rsqS9bRDjcJxSDkNzo7JIHkbsMc/WsQ03dgU8lVQ9NMuN1elpjqyeMF8thHtRNZ9sgyOORj2qa4E/kPQ+SUsltaXXP8Or/75bUi7banVQkR7+rqpDg6WHvxD4YTJSGXfi3v/SijbVfd4JLJfUNESbwdLST8G/p13p/TL8QfXFftK4fjBEP8E4IrvpV4b6+szTETXCrmL/RaqTc7Cn6P12lODpHvhOJ/SmbBCtOVhbdI9uVqou/HyfG7iMboOf9cL6kofYninBY339x1oQHJfzH8CMnK/3miZfjDw3hfzaDZbm4NICXJHzH8pMvM9twLnysa8vwaMlDx1WekZKgpGzcnByzpPYHgM8ZfBL86wWq9J82aDlWWuQ0/CNVHD00ahH9Wh6/XjaKhGuGs2wAfofTnr4+fj8a3X77Njq9Frt6W1JY5iNzwPPp/Z1qxMrVnILrqp9oOJ6ldev7GdRrQ4kvZ00f7dkSTwDjgdacrCwCTb0uCfVa/40Mq/BxHLT8h7Gy0rYd5Q8Y0W3wc+7/bW7BC+Yq9rak7HqSAYhJ//hdJiH1AC2FlPRwGQ02+Qhw33WP0PGXnyeCpKYAthibrxmyZVxD5XgV/Je5PFAER5Jxm8+Xnn44ZKvq9qSXlsFr8jBGTmYW8Noz8a9qGbcYzsWV++9YHBaGst+83GAp29qD4MUHCKNGqr/zciFMKv70RB912pfvX+4bWpeV9JNwMXAxWZWrDpcdz+pjsutAMuXLx+PIeCjkuNa3NBs73NjNa+pcY9qWRM80gU70l9HATi1BbYkr2p2Djbk/Ma+s+geV5fBlBQqNEtlLCpu5j2UJdpmZc+jumig8HmiM5I4Yr/5IuR9Bo8U/dqtuBE6Pue1qxYnwzHLPMff/pIr7ralvvaae1c9ggvNvbRKinLjM9t8oXCffLwd6fgug59a+Yf3rMEF9J8HC4JGaTQzxQ0jcM3hpIffPEB7Ks4ZqE0fKXfoIG0Ouq6kTwFvBK4ws1VVYyH180LF/iHT2wejS0cvdBehOQ+TCkOHliSfj2pkTqqa9hyc3+bhPoCpeb/hb+5zYUJOsCzv4b09BnPMJeHgNa2KBovy/etdzcrBQz0eVivKjcX0pMqrZCq+bw8en95msKEECwq+nmpDyX/gx+bckOTxsWS0lLwA5PScG6apae6qAx/XphqGqhU3hKvwsGBn+ncmDX+05EZzEn5uH54548IwVGPLBP/+G3p+lDR5iONDLmUwsx58DnhF1aEVuGKvFg8Al0hqrWq/EV+HmLWpDh2uAFaaWW9FmyGvK+kWXBjxcjN7qqr9atxYraho3wpcMsj4g1Hmhf3wy12wai88uRNe2Dc8qflwaBbMKfiW5fubk3fPqWiuKDyhAKcW4KIWeF0bnN/iaZfOa4ZTqh4X+/D5su50/sZiCrdV3WxygnPySQFonknihLz/qPeX3BA+U3RjVemhZTSRUhilfVnOwsGSu5Zw728WHsrslhupA/j82AN4jP45fMFwyTxEGYwtE13116iY4heSalZ9lPR7eL7JergJuFrS2ySdmgxDv/Twkr5X0f4r+IPebZLOkPQ64P1ApvgjnbtY0s2pz7cBVwN/W9HPLcDL01qpUyRdjy/luLnic3wG+H1cBbhL0vy0tQOk690MvF/S69Iaq9twFfBX6vz8wQjS0QebO2B6M0xr8W1LFxxoUGo+kszIwwlNsLfkIb9mwcvaXGVYyLmI4piCCyGqPb8Nfa4CXN4EZzXBJc1uvDpr3EFaBafm4bImOK0Jzs67wXiy5KHAnhLc0Q0/6nUPakvavzPNR12Zd2+qtwRbSzCl5N5ZPkngqzH8s5yTtuWCZTn3/J4wl54XcA9QwBMMPgEcBPXQ6BzVJuDHkv6Xmf01QFo79Pe4B/L/1dNJo+nhzWyPpBV4SviVuALvk7jBy9qslnQlvvD4nbi3dW0mIU9t7pf0RuDDwI14mP4qM6uU1b8rvVYaSlL7G9K//xrP+vIZfC75QeCVZravns8fjCzdff7Eld3wlUJuXX3QPoZV95Y0wcKCe0ctdarczHx+a3WfG4S5eVhQZ/31eTl4tuSpk16a1IX75aG6p/s8xHis/LuaBCzMuepvbtGfMNcZNKX1U6fr4LAfuNpwgXlGjJm4h7UTl5s/KRdoPGVuLDMh48nDCDvtS3No+3BDtxQPZwZHJ40aqsvxKr4fkfRK4P/g3sV04A1m9vV6O2okPXza9xi+eH2wPu/DKxIM1ubrwIDjNLMhfw7Jq7qBsuEKxpCWvIeYKoUHpRK0jkLitz5LnppcEJEb4q+loMYSuG4uetjO8LVLG/tc0XdW0+BrnsCzOpwkD7vts5TuCPd2tgGYe0svrzJ8CxowhuApl8w8/i287McxORdXdAFnJnHHHnNVYKNZ5TvMy5MU8DDkKvzJ9Hyrz9gHRx6NiilKwA2Svo+vP7qClF3fzKrl40FwWJjUBPMmwZYONxwlgzltMHmQv+6+koe3GrnxHSjCk/s9TAbQlodT211+vqbLj89qgiWtjasHM9YXPSQ4veTrm3K4UTixzl/qCXl4ScnPebbkIbhOYH4Kz20tclDW15I1tvi2WXC24LQk6c/y/J2K5wrcntpNlXtnjbIZN9RT0/vZ+Gr6yoS2QYNMcAM/nOzpC4C/TOc+if99voGKMFwQHG6OaYeZra76a8m7kap14+3ohbX7oLMXCnlY0g7Ta6gHOtOi3LYKr2l1h9+YZ6Qb/d4+eK7DFX9tOZe67+51g3V2+9DeVi2Eh8xm533rK6Vy73X2lRecU4Cf9fkPdHtSGU6W/3uayp7njqT624WrF48DltSYM6vF5pKnZerBy4osTarBS/D+hMfEh1MOpI+DJ8+LeIgxb41VAQ6c8SiQaIRGs6f/NzxzegdwGe6h3wB8IoUCf8/Mto70IINgKCSfjxpsTqpYgmf3uEx7aot7Rs/vhdMK0JZ+CUWD1ftgV0q10JKDE6e65H1/H0yv6H9SHtZ1woyWsgc1pQC7krGaMozQ4zF5eKwXcrlyOpSl+f7ZyXeUXP6ek887Ta26q0/LwRUFN3hbS546aW+Sje8FfpzSOT2OhxXbBYsMnshBi8H8IQzBdoOHzRN7TsYNVhe+nqtJ5XUjw2UeHr7swVWJG4Bn8e8jBxxj/nQ8nAeBYGLSaIDiG8A9wNlmdr+ZlczsQ3jy1tMoZ64IgnHHgT7oK5bnrppyfsPeW5H/Z1sX7OyBac2+GbBqn/9QWvIe5svoLsHkPDUfV4f7BDuvAKc3+VxYp3kob1kab6950tt/PQDP9Lro4mc9sLtGYtt8Di5sciN3bM69lGNzHkLsEtxX9P6PkRucTbhRWDfEwLvN62A1J9VgQR6a22Dl0iCHyjR5wtkuPAy4Fs+MPg+/1lo8Bc4PDO4yF28czqz1weGn0We+PzKzg5R9ZvZDSWcTCVmDcUytpzKjv7eyq9s9pYy2Auzp8RvhcW3w5AFPaAvumZ3aDs92QlfJlX37i9Cazl/V6V7cnBaY3sAvbUHBt0pKBo90w4O9Pu+0q+RzT0vysKYPzqlREneK4KKCixx608LirK8mvIz9NnzuKmeeI3D6IF7KhpLn+HsmpWE6Phk6yb/I/ebX6sS9qoWqr05Vze9AMM/co8zjYUTwB4se4Md4+YPp+ELKrvQ+ODJpVEwxoPzczHbhc1VBMC6Z1OTb3h7PXNFddI9gWsVNvjXvYb/mdFMvmoeY8oJpTXDOFJ+HkjwM2JKD5hys7oR1XW6YpuXhgS6Y2ezttuyDEybB/Jba46qHPWkB7ySVDemeInTn3MgMRE5eCqNyjqtVXiJkS9Fv8G14LL9NcOkAMZZOg8fNDcbJac3UmpJ7P71y4cPP8YeBZtzj2W2uABwuOcFk84eJEuUHjfV4Xavs65yNe17dVl5wHVQxwb+XhrVJkhZJuknSylSc8Iy0/z1VdZ2C4LBhBnsOwLqtsHEHdNZI550TnDAN5k5yAzStBU6e4cZkf4+vx5rf5n3t64X9vW7UFk8qewateZjfCvNayhWBpxVgblOqCdXqpUI2d7sQYnLeDdy6YRZlzD7b+l54rgc29cGqHi/62JlqWg0lLZ+Ce0o7Sh5SlEFH0e9ds3GPaoagkEQhtdiPty/I8/adIM89uB73fqandtPlxnQePrfUMczPnNEqF3lsBXaTchLimTGC+mgkI0W2jTcaFVOcDvwQF+E8gIeSs+fRY/H8k28eyQEGQT1s3wNbdkFLM3R2w+59sGwhtFWFxJrysLjdN4C9XfDMrrQOC5gzGU6bDju7U/qjFpg6xKJhM9jY6Z5ZpnKb2gTbejxbRh7vq0j/H9yePtja60ZwbhO0D2BwtvR5tooWeXr+B3vh+V5/Pyk3dMJXCc7Kuwe0OYknzsp7xnPhiWWn4wlpe4yaT98tlG9gkhunXAnOzbn0/Zcl/5yV11T6zIfKSbhB3Y57f2fhC5S78e9zJ74oOLypI5dG56g+iUvSfw2PGlQ+t94PfGKExhUEdVMsuaFqb3O1HEBXD+zcA4vmDHxeXwnW7ILWJk9rZAbb9sPUVlg0aFbL/hgpRJjez2hyNWDOPLzYbb6vUqq9pQee6XSvzIBN3XDmZJha4xe5oQ9mF9wo/aTLvYk+4NJWmFnwLBbnDOFVtQhOzvtGGu8jff46CU8cO0n+71pMAQoG95XcaM3E62HNSZ9pvmCteQ2svLzMfSvl0iWHguSfuZ8XZa4E3I8/IZ8wAtcJxi+NGqqLgTeZ2X5J1T+Noeo6BcGokHlDuYqwVS4HvUM8znenYoSFdJ7kHtf+LpevD3puEXZ3+/lTW2Buq+cXnN4ETQZbOyBfgId3w8I2OKu9fK4ZrO32kGFmvDqAdd1wxiC/yBl5mJeHRQX3fBYm47ejz7+DRuTaC/LQ3gvkPBw4W17Bd5+lOaskjigkb2tdkqCfnNoUce8uC4nOSguAn8WNXzvwEo2ehHyhPDlocHTQqKGqIYR9kdm44CcIDitNeWhr8ZBfW4sbgq5uWDR78PMKOf+Drky91FeC5iF+FR198HQKF+aA9Qdg2RQotcCWblh1AM6YCvNaPfy1v+jntGWqO1yFV+ltNKc6VbVYVIAnetxQTZbXnDomGamuNA82mEHoNZ9PaqP8OdvwhcF9eFhkdlLudQObivBYNlkh9552495TQf402mWwjv6VQpfmYHG6Viv1LRwODhMT/P+iUUP1Uzyz+DdrHHsDrhoNgsPOolmwYTvs7wAEs6bBtPbBz2kp+JzUtv1u7PpSfsDpbYOft2m/exJT0txVbwk2dMCZM2F2sxunmRVzY0VzpeCs5KXl5SG7PX3lUN/ePhdi1GJeMijr+jy/YBFX6O1Igoha0nRwA7ym6Julc84oeO2r9iR6mJYW6RYNdpi3eaSUskokT3NrEXZVSddzHFzIEVJuw8G/vmAMGI8CiUZo9G/qr4C7Jd2Fl7Qw4BWS/ifwWoZIGhsEo0VzEyxbAD0pY0OhziSri6b6nNT+Lmhpgmmt5Rv0QHQU3QPKaMpBR0//lEuVobgeczl8VxG2dXvpjZkF6MnBzlSKZFYTLBrA4EiwuMk3S17Pzj7/8c3MD6zU22nwfNHFFnl5OO+RPrioydV0Z+TgiVK5DtXJeZexF+k/n9aW88+wA68MbLiHdcoEf0oPJg6NrqO6T9Jr8Izp/zft/ji+5u41VeUygmBUKZWgVPS5oCzMNFTYrhrJ55iGmpOqZHoLbO30VEUAnamcSD7nyrdFrS6maM65p9KS87VPD+2E7T1uqJpzcOZUOGmyhwIn1ZljT/Kw2sI6ypdsS8KHbB5pklzOfsB8MfD8vFcT7sD7bJEbpBw+b5UZq660HqoDl6Nj7l11lfz9PEUJjmB0adhLN7P/Av5L0gn4AvQdZvb0iI8sCAZh7y7YvcWNVaEZ5iyCliFCdo1gBh3dLshoLrjMPTMk8yfBgR7YnTSvzXlYUpHWe1Gby9P39LpBmtkMazpgbQdMTvkIO/rgJzvh9JKvh2rOwdK2/iHDQ6WV/vLwbB1XpbfUJE+hlNGs8oLenPk503OwKOdtTzb4ZdFTJnUlw7bW4Pxc/Ylzg6BRhh1ONrPn8NyRNUmqwB7gfDP7+XCvEwTVdHfAzo3QOhlyeejtga0vwKIT+iv/hosZrN8Buw+4cTKDOVNh/gw/3pTzhcIdSTXY1tQ/VZDkhqpy/dW2Tm+TCSomF+DZAzC3Bxa3+TzXU/vhrKnQPkKTPPPy8ELR0y21yFV8i3ND17U6Jg/TDfaVfO5uJuXP14FngZinsuHeZrDVYPEhGqpiCisOJ+N6cGQz2vOe8ScXjDgd+yFXcCMF0NQMHfugpwtaB1oI1AAHuj3LxdTUlxls3wvTJ0Nr8ngk947qZUoTdB8oKwz3pzmmLAdgU8637T0jZ6jaBOc1w8aiJ66dja+TOlCCyUMY9Cly4UY13em1MkzZgi8WHi4lg+fM5w8MryB8alU40cwFJYWKa/eah1oji/oQiAl/Jw6BTjDhyBdqpyMaCW8KoLsXVNGX0g+9p+jhtOGwbDI83+HhwkLKwj6vpVxeJMPMPYvhJnOtpMfcKDXj3hG4wXq+6BWDZzdQ1TejnZTNomIOq9Ng5iF89y+Yh2bmpL434WHHM1L/u8zl8h24pP8EYCOeTikPnGi+6Dfk8ANztKn+gmDMmTQFdm+Drg4oFKCnGya1Q9MhJH2tpLXJ574y78fSmqJGhRqVtDfBpbPg2f0uQpjR5BkrDvS5B9VZhPWd/n5rLyxo9pDgcL2FfSX4RY8blLV9vlj33Gavm9Vj8HSfCykavbm3Ck5NakHwRLk9wOMl96qW5RoXVqzDFxVnn3WWeZ7AU5MXtTItQp4jN4r/YnCiPJ9gH/BL3IANkoQkmOCEoQomHIUmWLAM9u6A3i6YMQ+mTB/4ptvTBZ373ONqm+rnD8akFpjZDjv3+83TgLnT3IAdCjNb4IJm95gKOVf/re+CHT2+zmpawb0sw/cXcrBwmC7cs71eymNaHjaW3PBu6IPjm130sC8ZgeF8pMU5z0Sx3jyF0ZIUpluDC0PObtBTa8LHklHEPSXhZT6ydWPg/8d7rXzjKuBeXpZRPTgyCUMVTEiammHWgqHbdeyFbS+kUJ7B7q0wfxk0DWIAJFg4041VT9EXBreOkBpPKofMmnNw3CRX+/1sj88JSX6DnlLwLBfDMVRmXtF3ZjIY0+XhtH0p/nOg5HNQhyIpb5MbpVk597LAPaEt1ni5jWXAyjTuHL5GK6vgW13CRFWvcHCy3+DIY4Si+o0j6V2SVkvqkvSQpEuGaH+mpPskdUraIOlDUv9naEmXpb66UgmSd9To5/WSnpDUnV5fW3X8Ukn/ka5hkq6u0cdt6Vjl9pNhfhXBKGEGuzZBc5srBFvb3WDt3j70uZKnY5o2aeSM1IDXSlvlPblE/fNUu/rg4Q64/wA82+Uig6k56EjhuXnJABbNs1mUgFNG6M5eOcTs19jofMi8HJyPz6Xl8Gq+y1JfM/Gw385kAA+Yp23qwoUd+9PrkmF/gqMENbiNM8bkQUTSVcAtwLuAH6XXb0s6zczW1Wg/Ffgu8AP8b/pk4DbgAJ7RHUnLgG/hC5F/B0+g+1lJ28zsjtTmQuB24C+BfwVeB3xN0ssqFiu3A48D/5S2gbgb+N2K9zUqIAVjSakEfX3QVrG+Kt8EveMsI6UEi1t9rdXkJBTpKMLJg6QeN4PtvbCuF57r9qwWU/NeEqSjBMe3wCO9PvcFcFIejm/yOaqpGhkJ+KIcbCh66K4JD9PNU9nDaoS5OV+UWU1BXkn4XlwWvxT4DdxAbcDnps7CU0EFA3PUiCkkNeM3+U+Z2Q+Gam9mRUm/D6yucfg64DYz+3x6f42kVwHvBK6v0f4tuLL2rWbWCTwu6VTgOkk3mZkB7wA2mtk16ZwnUyHH9wJ3pH3vAe4xs4+k9x+RdEXa/6Y07m/hBg9Jtw3yEbvNbPNg30EwtuTz7k31dpeFFr2dMGWIZLVjwYIWvylv7va5qVOGWPy7phvW9Xi+wANF//fJrTCj4NnUC8BLW7wysPBFuyOdPWKW4JycS8sPAMcAx49wjGa/+VPjUuAUYA/wNPAy4LgwTkcNdf9ZmVkP8IoGz/lCKlH/IsngnQfcVdX8LuCiAbq6EPhhMlIZd+KZ/pdWtKnu805guaSmIdoMdN3BuFjSVknPSPq8pFoPhMEYM2shUHIxRedeN1xTx2F5WAnmtviC39OnDG6kekuwodfDe0VcHJEz2FaRJdbweaK5eZiTH70URwtycEkeXpGHU9J1Og3WluC5Euw5hEf5DoMHzZ90D5DWncn/vXdkhh9MEBoN/f0Y+BXcEx8us3FRz5aq/VtwQ1iL+aQ0Y1Xts2Or0+vdNdoU0jU3pTa1rttoHa3v4KHD1bih/DDwfUnnmVl3dWNJbwfeDrBkSWPR9O7ujQ0OLeiHYOYS6O2S15tqNfqK0DeM0rMtLeOjAlIvsLMXXkjpl17ohbmpsOLeIrTnhl7QO1rsN3iw5PNgMnjSvArw4gaVgJ0GD5ivlzoAPIXPTS01Xz/1Y4M28x/fUsWi3yOdRv+c/xT4Q0nvlrRYUl5SrnJroK/qZ63q+eR62lfvH26bhp77zOyrZvYfZvaYmX0T+HV83uzVA7S/1cyWm9nyOXNCRHu4yeWgZZLR3GZHxqJQc0OVw0vYH98E63tcbDA1D6e1jt3i19UlH1czvj5qDXB7yeey6qXHvOJwH3AcLqZow+ekfonPVc3A56eeBp6f6BMwh4NRElM0IoqTdLmkf5e0SVKHpEcl/UE912nUUD0GHI8LIdbiAoLeiq0eQcF2PGJR7cXM5WBvJ2PzAO2pOGegNn14hYLB2gx03bows424x3fiofQTBPXQUYJjmn1Oa2/RjdI5bXDhJDi91QUTh8p+8+zr+xs0AvvwkvVPmntUs+RCi4etvjRLa0twj8FP8LmpDuB0PE1TR9qW42HNgrw8/RpqZyoJyliDWz1UiOI+CpwL3I+L4gYKG12E25DfBs4A/h64VdKbh7pWo6G//80hCkjMrEfSQ8AK4GsVh1ZQFj1U8wDwCUmtZtZV0X4j/neatXlN1XkrgJVm1lvRZgXwN1Vt7m/8k5SRNBuPTGw6lH6CoB6aBS15OKXZvai8YF+f17waCZ7vg1XJMyoBx+Xg+Dr7ni/4uXn+vhZ5ye9pSQm4w1xxOBB7zD2m2fi1H8FDfstxz+pY/OZTa2mZMS5V1Uc6DYnizOyjVbv+PonZXo/XNxyQRutR3dBI+0G4CfiipJ/i817vwIURnwOQ9DHgAjP71dT+K7ik/DZJHwZOAt4P3JgUf6Rz3y3pZuAfcGHQ1SQ1X+IW4AeSrgf+DS/2eAUuZSddux1PJwb+e1ki6Rxgp5mtS8dvwI3qJjxM/jFga+ozCEaVKXlfzLuzz2tddRS9UvC0YeTuq2ZfyY3ULJULQK4qwdySVwYeimPkoZZnKRuV4+We0FBZMHamjBN5wQxz4/QE8AKeLuklgt3mj+SzzQ3TDjzEE3NUh5cKUdzfVh0aTBRXi6kcrD84iDFZR2Vmt0uaBXwQWIB7+Vea2drUZAH+95e13yNpBfAZfBH7Lnz91E0VbVZLuhL4FG7RNwLXZmuoUpv7Jb0RFz/cCDwPXFVV8HE5cE/F+xvT9gXc8BWBM4Hfw1OUbUrt32Bm+4b/rQSjSc+eHF0b85R6RcucIq1zi2gEbuxjgQQnT4IdvR76m5L3CsEjkcj2AG4Asht/Th7CO4CvS9thPv80J1c7+0ST4NIcWMml5HPx+YACMHuI8bXiHlz2GY/Fw4jnAQuS4ZyCL1xeldqeQMjUR4nZklZWvL/VzG6tPE7jorh+SPoN4Fdxp2JQGjZUyZJm4oFqL9zM7K/q6cfMPgt8doBjV9fY9xhDlLo3s/uAlwzR5uvA1wc5fi+DRBGSRP7XBrtGML7o3Sf2P1sg12ao2ejYkKfUA5OPHYb0b5yQF8xtrr1I9lBo5eDYvgE7i57brwl/UltVgvMLtWtb5XNwsWCNea2qOXiy2qEWAs8WTDbYbj6ODmAxsFBlcYjkWSuWUU4aHIwK281seR3thiVOk/QyPFJ2rZn9dKj2DRkqSQvxTBJL6R8WrhxYXYYqCA4XXVvz5Fognxb9Nk0zurcXaFtYJHeIiWaPNKYJFua8hlU+pV2am4NNSRiReW27SrC+BCcO4JU2C06Sx+jrpUnwUtwg7sVDKgs0sDEKI9UAI/9dDUcU50ORLsaTKnzIzP6+nos1qg/6G3wZwxL8o78UDyV/BC8pc1yD/QXBqGMl+v1Q1fCChKMHCU7Lw3lNboTOa4ITkjGqDC22qpzkdiRplos3TpIv7h2zZKRHEI0q/ur5b00JIDJRXCWDitMkXQp8G9cX3FzvZ2g09HcJnpIoW4VaMrM1wIdS6fn/A/xWg30GwajSMrvE/mfz5JoMctC3N0fTjPCmBkKCmfKEsFCh4LNyqC8raz/S9JkXScweyacB51A7xBiMOQ2J4iRdDvwXPuXzZUmZN1Y0s22DXahRQzULz6dXknQAX3eX8X3g3Q32FwSjTsuMEra0l85NBawIzbP6mLRo4s5PHW5ygpNz8P1e96LagRMLnj4pY595yqMWuXEZblhuTTJSc9L5uw2eMDgvDNW4o1FRHC5Gm4Q7O++t2L+Wciq8mjRqqNbjag9wxdwrKactugDPvh8E447WuSVa5vSA9S8zHwxNr8FzRfeypslVfMIlXwCrivCsldddLRacNozqweChmmkV76fhkyE7Sp6Zog9/ZJ83yNxVcPhoRBSX3l9dq+1QNGqo7gEuA76Br1X6TFpj1Isr4f5hOIMIgsOBGkwPEzg7Si5Pn1shnNhW9AW6TXj29NmUJe3rzWfYh5P7dzJewiPLydsHdBk8iIf/cvjEyKkWsvSGmODfVaOG6oOk0LWZ/b2kAnAV7s79NZ65IgiCI4hOq7FYV+X8aZjnU8woAPtLMGsY69SOF/zE3IvL4SGaZvOEu+3pZttmHs451kZm7djRwETXDjWamWI77oln7z8NfHqkBxUEwfhhes5Df9m6pWLK49cuD/VZymCReVR9Bu3DXEw9Xb76c2NKSrtA8GRVqDaTzRcphx+DI5thZaZIWdJPw737lWZ2YERHFQTBuGG6YFneE8aq5E/npxRgUjJMx8szmOeS8ViU66+yapQpgpMrPKVF5qmUWpKh3J1Cjc3hTR01DCczxR/jefeyEPT5wM8lfQP4vpn9n5EbXhAEY40EJxRgoXkS3Enqnz7phDzMqVD9zWBkhQ7HCA6YK7nMvP/Tw0gdVTSameKP8MSu/xdPPvgvFYd/iGfBDUMVHF6KwM4cdANTzbdgxJmkshdVzbSkCBwN8nLDdIJ5qDHWVDXIESAiatSjug74pJn9eVrgW8lTwPtGZlhBUCe9oIeaYHfKWmqGndwHS0tDnxtMKGolwQ3qY6I/ujVqqJYBdw5w7ACeTTwIDh+bc7BHMDclfymCnm7CZnR7AYG4uQXBhKdRQ7WdgVcQn4yvyQuCw8eeXP8c/nsEjxU89fYsgzN7vbhREAQTlkbX6H8Tz+tXmXzWUoXbP8EXAgfB4WNmycvIgr8+VXB52KISNBk83OQLfoIgmLA0aqg+iE9ZP46nTjJcPPEkPqUdC36Dw8u8kkvOtuVgdR72Czux6CtUW/G/yj3jL2eSGXR2w7790NU91qMJgvFNowt+d0haDrwHT5n0fOrj74BPmdneER9hEAxGHuwlvbBLsD4P00owryLUZ4L8+Ar9mcHWHbAr/VoMmDUN5g4n51AQ1MMEn6tteB1VKrf+V0SBxGC8IGCmwZQ+2N0MOwWTDPbnYGoJpo8vQ9XZDTv3QPskX29kBjv2wNR2aG0Zu3HtLcH6Xk+ZNC8PCwqNpygqpYwSsRh3fDG+fgGNM6zMFEEwLmkCzu+BF/KwOwfH98Hi4rirvtfT40r6yvLqAnp7x85Q7S/Bz7uhBSgInu31mlPzC7Cn5Ptn5b0K70BsLMIzJc//N01weh4mh8EKRoDhZKZ4K/AmvMpva9VhM7PjDz4rCA4TbcBJRXxyanzS3OSeR4aZP/EWxrCQ48Y+t/Ptyai35OAXPTCt6MamD5hchHOba3tLuwweL8EMuaHbZ/CLIlyYL+cADILh0mhmiv8F3IiLKX6BCyuCIGiAtlaY1g579nvW8VIJZkyF1uahzx0t+swTvPYAPWmt9OYiLC145nLwch9bi7C4xl1ja8kNWCEZpSmC7SUv2TH1MIw/OLJpNCjyh8AtZnaWmb3ZzH6/equ3I0nvkrRaUpekhyRdMkT7MyXdJ6lT0gZJH5L6ZxSTdFnqq0vSKknvqNHP6yU9Iak7vb626vilkv4jXcMkXV2jD0m6QdLGNJ57JZ1e72cPjm4kWDAXjl3oAopjF8G82WNbCHBeATb0wiOd8HQPPNAJXSVoq7hDtAD7Bkj40cTBPqxxcHZzM98aIfPWnih5DaxgGKjBbZzRqKGaha+lOiQkXYXnDPwocC5wP/BtSUsGaD8V+C5epfp84Fo8XdN1FW2WAd9KfZ0LfAz4tKTXV7S5ELgd+DJwTnr9mqSXVlyuHfcY/yflFTrV/Bnwp8A1aTxbge9KmlLvdxAc3Ugwqc09qUmtY1+tdhKeRy8nNzAL8u4d7amwPp3AzAHuGPNygHnIr9tgWwnmysOGZrCmD77SC5/sgy/1wVNFL9UxFFtK8ID5D2wz8MMSrCu6BxjUjzW4jTcaNVT3AWePwHWvA24zs8+b2ZNmdg2wCXjnAO3fgv+W3mpmj5vZHcAngOsqvKp3ABvN7JrU5+eBLwDvrejnPcA9ZvaR1OYjwL1pPwBm9i0z+wsz+zr+2+1Hut57gI+b2R1m9jjwVmAK8ObhfBlBMNYcAOYU4JwWOLsFzmiFY3LwVA+s7oMtRTdGswcoADVZcEHBS4IYcGIOzkht15fg3hJsN890tcfgR0VYPUQ6RjN4xFzAOS3VoHre4N8M7jHYEOkcjxoaNVTvAX5f0u9Jmi0pV70N1YGkZuA8PPt6JXcBFw1w2oXAD82s0sO5E1hIOaXThTX6vBNYLqlpiDYDXbcWy/BK2y/2k8b1gwb7CYJxQzNuGPJyZd+mPthcglkFL5LYCpw8hFx9iuCsPFxY8PpV2XzVWrxS7wy875nyye01gzy6HzC4vwQ/M3jM4MkiPGleqr5VPu/1KO7BBUc+jRqqZ4AzgP+Hh+F6q7Z6ktXMxkPXW6r2b8ENQC3mD9A+OzZYm0K65mBtBrruQGOpvP6Q/Uh6u6SVklZu27atgUsFweFhSg7mFmBbEXYU4clemJuH4wuwtMlVf9uH6cEYPu1RbVMGi3Y+ZtArOFF+k1oD7Aa65T/mgvwmsiMM1VFBo/L0/83IhTBr/d0O1vdAf+c2Am2G85nq7sfMbgVuBVi+fHn8tIJxhwSnNsOcokvVjynAsqaytLxZsNdgwTD6PhZYjRuaKQZ78Tj+8bm02BnYYi7WWJgM0x5gjtyT68IFFRuB44HFaUwl3BMM6mAcCiQaodEUSjeMwDW34wKhau9jLgd7KRmbB2hPxTkDtenDfwuDtRnougONhdTPC4fQTxCMK3Jyr2p63ueRKp+ous3nn+plr8GmkhuTeYJLch7G22z+/ldycKw8/PeU+fK3IrDW4Ly0ALpkbiDPkBvQObjx6kv9twKzJ/gN+HAwXgUSjXDY1+ybWQ/wELCi6tAKXLFXiweASyS1VrXfiEcFsjavqNHnSjPrrWjTyHVrsRo3Vi/2k8Z1SYP9BMG4pFlwUpOnVNpRhO1FmDOIkKKaXQY/KcJGg60GPyv5vNJ/L8A1TfDGJliad4PzrHkob6p8sTD4j+s4XOl3wNwokYPX5HxCOgcsBl6qSNV0tDCkRyXpQ8A/mtnG9O/BMDOrJwfgTcAXJf0U+DGu2FsIfC5d82PABWb2q6n9V4C/BG6T9GHgJOD9wI1mL67K+Bzwbkk3A/8AvAy4Gs+ikXEL8ANJ1wP/BrwWuAK4uOLztgMnpLc5YImkc4CdZrbOzCxd4wOSnsLn7T6Ir238Sh2fPQjGPQuSZ3Wg5AKIqapfQr+q5KG9LH1Sq8FzJZif699HH2mtVcW+FlyB+BLB5BTuawaWyJV/80bgswUTj3pCfzcA38H/Zm4Yoq1RR7JaM7td0iz8Br8AX7d0pZmtTU0W4OHorP0eSSuAzwArgV3AJ3GDl7VZLelK4FO4zH0jcG2Ssmdt7pf0RuDDeIaN54GrzOzBiuEtB+6peH9j2r6AGz6Av8ajFZ/BxUwPAq9MCXuD4IigTdBWpxdVSUepf9n4JnxeqkT/BcCtuIrvgJXXW+3DvSYJFmh4c2LBkYes0WXiwSGxfPlyW7lyZd3tu7s3juJogkZoaVk41kMYVxTNE9fmBe0Vhun5ontVs9PEwm7zsN45NYzePoOHK2pfLhacqtr5AXcavJDmzhbr6JifkvSQmS0/lD7OOHe5/et99d9zAE6edujXHUkie3oQBEPSWfJsE0XzuSoDftEHveYlv+bmPFt6XrAk5x7UtvQMPA04ZYDZ8CmCi3Me7ivgXlwttpR8YnsSLrTYaHC2waJxlhl/XDJO0yI1Qj1zVCXqF42YmYXxC4IjiH0lWNnt66h2pFx90wTHtcC0ZCi2FmEmnrC2SXBuHjqS91M096qa8Dh5tbeUk6d1GYxncIPXmsnlDZ4FFtrYp5+aCEz0uFk9RmUk104FQTDCmEFn8m4mFaBphL2MNX1uiPbihulACR7shUVN5Tms9pxnUG8peYhusvk4VvXBxswQCWYJzsk1XpCxC5he8T6b98oWEwdHNkMaqhFaOxUEwShQNFi9B3annDA5wXFTYfohFmDsNjcABTyb+sO97kWp4OG6PLCh6MpAgC5zA7W9CC0p5dFW87VRswUL87BMHj7cLl9L1QgLgfWUU8zswoUWUevq6CDCdEEwTiiWoLMLrAStrdBUx69zZxfs7IEZyTD1lWD1Pjir+WCvZUs3rO92z2tBMyxqLefjy+g2eKYbdhY9pFbC1zEZ3nZDEWbl4Ji0KHhPqujba952rmCT+fqojtTfTvOV8cIXDe+xxmXmJwo6rTzvNRM4OYzUUUMYqiA4jJSKoNzB8yq9ffDCJi9HD35TX7zQS4AMxr4eaK1Q0xVyUOqF7qKHATO298CznTA1D605WN/jpTKOn9S/v2e73fjMLHhBx/u64bgC7Mp7HsCCeUHFC1rhlJRiqRk3Yk+kXIDPFf3GMhWfWyrKw4XPyo3c6cMwMM2C5SrPe0WJ+waZ4N9XGKogOAz0dsHOjdDTAfkmmL4AJlWUvt25G/r6YHIyHL19sHkbLFvs/0bQXOPXOqkAu7qhLR0rpUmb6nmqTT3Qni/vn5GHLb1wbMmNG7jh2lGCGel9t0F3CVZ1w/HNLqRYVfQQoJmX/ZhWEfqj5O2L+I1lp8F8eT8H8HmlXvOCb7XI1lEVcSOXl4c2tyXvbJrckwrxRONMdJFBGKogGGVKJdi21m8WrVOg2Avb18H8E6A5eUz79kGxD7q6oKXZw35798Hzm6G718+d1gYLZ0G+wgjNaoPtXbCn272bYgmWTDnYUNWzXDKHzz2VgM4iPNOTakAVYXWXX3dZLnlbwKO9nrOvSa7GOz3nXlUOLw1SMve28oKTBOcV3Gh14uHEPG54CnID9ouUoFb4YuCzzT2yHbiR6zFfDHxaGKqjjjBUQTDK9HRCXy+0JQ12vgnUDV373FDt3w87d0FHBzQ3Q3MLTJ8OezthSgu0t/l5ezuhZS/MnV7uuykHp8xwQ9VbgvZmaG+qHgEsaIGnO9xo5PDKvXObyt4UuKFb0gTP9XgGdQPm5H3/ppKfc0GrK/92m2dC31eCmcmrWpD3CsBLBd/uc6P5QtGVfuc1uwHqBR4uQilVBG4XnCtPI7PLfI4LfCHxj8yNY7bPzGtbLbH+C4yDI58wVEEwytQKVSmF6Eol2LIV5syAbfLw396UiKt5MkyumKNqa4HdB/obKnBjM6tt8DHMboJim4sp+gwWNsPiGvNfxxTcm1nX6wZpXhM81+vy910ln6cy3Iuq9dla5MZwWc4rBLfiJTz+qw9ekYdC3lWDLYKNJfh+EX4hT6W0tGKurV2wymBehf5cgpy5VL0yfNhnXkJEuIS9Uel7MP4JQxUEo0xzq2/d+6FpEvT1eDaHSVOgr+jGqm0SLJwDXT3Q2+Pvu/IePstuvH1Fv9Hv64J93dBS8HBgITf49cFv8vNbfBuq3dwmWN7mooopOZ932l1041ECnumFEwpuyKbVMApb04Lgp0pufE6Ul7LvwT+PBE/1wf3m4oy9uDhiXxEuKrjB6TGvBFzEPSnJDRK4UcvYZ7DSvGIwuGE8nxBbHMQE/z7CUAXBKKMczD4W9m6Fzr3QPAmmzYVCixupXA6KRcjnXeV3oARTp8C0Jli/w0UUZi49Vys8t9339ZZg+wE4fnZ9xqoRjm+CR7o9BNhRgqUFD8PtM0+XNC/vEvha65gmAZvw7OhTknGbnPP5qqeKnkn9YYM284XCc+Re2jZgnfni4D7BcoPd8nCfkpE6jf5plp4wD2XOSfv2mpesXz7Bb8wjTYgpgiAYkkITzFwELOq/P5eDeXNh02YgSa9bWmHqVPeemgqwe7+3m9QCa/e4F5WF3PZ0wZ5OmDWZEaUtB+e3wpY+926OafKwG7ggIp/rnyG9kmPz7nXtN2/TZT5vtSkZob0CirBDbqxm5dwjajc4wbzc/ORkxBbK56S6cE+q0kj1ppBfZXLaqYLtScgRi4GPHMJQBcEIYkUo9UGuyT2pemhvh6XHQle3G6S2Vn8FaG/1DeBAyj5ROS/UlIPuvpEbfyV5wcImT420r+ihviLuVZ0xSPmPKYJfLbisvttc8dckF0tcVHCjdCDvUvhWXNG32eBUoFOwE9/WGpxsPt9VS9JewL20HisXUOwyr78TNurIInIPB8EI0bUddv4Cdj0Cux6F3r31n9vUBFPafR1VboBfZUuav+lLC2vNoKfoysDR5NRmmJV3McUB8+q/c4aoUzUtB7/ZBOcWXH7eBpyacy9nWg7Oy/s6rG7cIC2RH9+Jq/xmC2YleXrXAHErCU7G0yntsbQBpxBrrQ4Xkt4labWkLkkPSbpkkLatkm6T9KikXkn31nud8KiCYATo64D9z0NhCuQKUOqBvc/CjLPcuxoJCjk4dgas2+WeDcDcdmgfZUPVIjitxddU5RjYCBRL8GwJ1pY8THd83g1QR/KmuvAFw8fkPZXSqTk4TrA47+upnjHPE5iRlxvmTnz/ZoN1+L4leMXghTmYZF72Q3iosJbA46hnFL4TSVfhVdPfBfwovX5b0mlmtq7GKXn8z+DvgCvpn2d4UMJQBcEI0LsPyLmRAsg1u/HqOwDN08vtzKCv28OChebGrzOtDU5t8XBfIede1uFiMNl3j8F3e+Gxks815QQbzL2peTmYk4NpKedfzmCS4LSCr7HKmJHWSWX0JWn6JFxk8Uu81AfAz4EzSy6Bny7fgsPOdcBtZvb59P4aSa/CK6xfX93YzA4A7wCQdBZhqILg8KIBfkmqCJH19XhGit4uF01MmuoCi1yD5d4LwzRyo8mGkqv5lsjH15NyApYEx6XP1yyvR7VQ/ddMZcwRzAW24sasJDgdn4d6Hs+cniXRLRg8Byy2CPPVw0ir/iQ1A+cBf1t16C7gohG+XBiqIBgJmqe5F9W7z19LndDUDoUKNd7OjZ6hojVlqOjYC02tLlWf6OwouUHJbEZzkqX3VDccRI2XF5yLzzN1yxWCk+Qhx148bvRiW3xfxXrgYGSZLamyfv2tZnZr5XH8v2FL1XlbgFeM9GDCUAXBCJArwLRToWsL9O2HlmOgdU5Z+Vcq+oLfzEgBNLdBx54jw1BNE0zNwd6Sh+f6zOfRjs95Mtsp+OREDl+HNRDSwfGgvGC++TqrmWnfbrxGVUjQR43tZra8jnbVzppq7DtkwlAFwQiRb4bJx9Q+JnkYsFQsh/qKfb5m6khgcd7zAa4SrE/rwV5WgHMKPle1NWWaWJYvl5NvhFPk4cSt6RY4G5e9B2PGdvxZZH7V/rkc7GUdMmMmT29E1pjanynpPkmdkjZI+pDUPzot6bLUV5ekVZLeUaOf10t6QlJ3en1to2NLEkur2n4y3O8iOPJRDqbNg679nqS2+4Cvt5p6BHhT4AtxL2yCVzXBf2+Ct7fARc0wKQcn5t1onZkffjLZFsH5ObhUvi3PlddOBXWgBrchMLMe4CFgRdWhFcD9IzTqFxkTQ1Uha/woHpa+H5c1Lhmg/VTgu7ilPh+4FngfrjrJ2iwDvpX6Ohf4GPBpSa+vaHMhcDvwZeCc9Po1SS8dxtjuxqthZ9uVjX8TwdHElJkw73jPot4+E+Yf7+G/I4Umwfw8HJvyAI4Gk+RbUD82jK1ObgKulvQ2SadKugWPyH4OQNLHJH2v8gRJp0k6B3eK2yWdk94PyliF/hqSNQJvwVWqbzWzTuBxSacC10m6ycwMlz1uNLNr0jlPJgP0XuCOtO89wD1m9pH0/iOSrkj739Tg2LrNbPMwP39wlNI62bcgmOiY2e2SZgEfxB/WHweuNLNslcEC4Piq074FHFvx/uH0Oujjx2H3qCpkjXdVHRpM1ngh8MNkpDLuxK330oo21X3eCSyX1DREm4uGMbaLJW2V9Iykz0s6QoI4QRAE9WFmnzWzpWbWYmbnmdkPKo5dbWZLq9ovNTNVb0NdZyxCf4PJGqsn5jLmD9A+OzZYm0K65mBtsj7qHdt3gN8DfhX4U+AC4PuSauYIkPR2SSslrdy2bVutJkEQBMEAjKXqr1FZY6321fuH26Z636BtzOyrFccek/QQvqj+1cC/HjRwX39wK8Dy5csnesb9IAgmEnUKJMYzY2GohiNr3DxAeyrOGahNH7BjiDZZH8OSXJrZRknrgRMHahMEQTBWTPSn48Me+humrPEB4BJJrVXtNwJrKtpUr4heAaw0s96KNgNed7iSS0mz8UpDmwZqEwRBEAyPsVpH1ais8StAB3CbpDMkvQ54P5Ap/kjnLpZ0c+rzbcDV9M9FdQvwcknXSzpF0vXAFcDNDYytXdLfSrpQ0lJJlwPfxFOU/dsIfT9BEARBYkzmqBqVNZrZHkkrgM8AK/ESNJ/EjUrWZrWkK4FP4VLyjcC1ZnZHRZv7Jb0R+DBwI57r8ioze7CBsRWBM3ExxXTci7oHeIOZ7RuBrycIgiCoQGWHJDgcLF++3FauXDl0w0R398ZRHE3QCC0tC8d6CMFRhqSH6sy5NyCnn7fcbr+//nsOwJmth37dkSRy/QVBEBzhTHR3JErRB0EQBOOaMFRBEATBuCYMVRAEQTCuCUMVBEEQjGtCTBEEQXCkEymUgiAIgvFMqP6CIAiCYBQJQxUEQRCMa8JQBUEQBOOamKMKgiA40gkxRRAEQTCeCTFFEARBEIwiYaiCIAiCcU0YqiAIgmBcE3NUQRAERzohpgiCIAjGK0aIKYIgCIJgVAlDFQRBEIxrwlAFQRAE45owVEEQBMG4ZswMlaR3SVotqUvSQ5IuGaL9mZLuk9QpaYOkD0lSVZvLUl9dklZJekeNfl4v6QlJ3en1tY2OTc4Nkjam8dwr6fThfhdBEASjhoaxjTPGxFBJugq4BfgocC5wP/BtSUsGaD8V+C6wBTgfuBZ4H3BdRZtlwLdSX+cCHwM+Len1FW0uBG4Hvgyck16/JumlDY7tz4A/Ba5J49kKfFfSlGF9IUEQBKOINbiNN8bKo7oOuM3MPm9mT5rZNcAm4J0DtH8LMAl4q5k9bmZ3AJ8Arqvwqt4BbDSza1Kfnwe+ALy3op/3APeY2UdSm48A96b9dY0tXe89wMfN7A4zexx4KzAFePMhfCdBEARBDQ67oZLUDJwH3FV16C7gogFOuxD4oZl1Vuy7E1gILK1oU93nncBySU1DtLmogbEtA+ZXtknj+sEg4w+CIAiGyVgs+J0N5PEwXiVbgFcMcM58YH2N9tmx1en17hptCumam1KbWted38DY5lfsq26zqNbgJb0deDvAkiU1o5sD0tKysKH2QRAERxpjqfqrDoWqxr6h2lfvH26b6n0j1cYbmt1qZsvNbPmcOXNqNQmCIBg9QkzRMNuBImXPJGMuB3spGZsHaE/FOQO16QN2DNEm66OesW1Or42MPwiCYMwIMUWDmFkP8BCwourQClxhV4sHgEsktVa13wisqWhTHTpcAaw0s96KNgNet86xrcaN1Ytt0rguGWT8QRAEwTAZq9DfTcDVkt4m6VRJt+DCiM8BSPqYpO9VtP8K0AHcJukMSa8D3g/cZGbZA8DngMWSbk59vg24Gvjbin5uAV4u6XpJp0i6HrgCuLnesaXr3Qy8X9LrJJ0B3AbsT+MMgiAIRpAxyZ5uZrdLmgV8EFgAPA5caWZrU5MFwPEV7fdIWgF8BlgJ7AI+iRuVrM1qSVcCn8Kl5BuBa5OUPWtzv6Q3Ah8GbgSeB64yswcbGBvAXwNtaTwzgAeBV5rZvkP+coIgCIJ+qOyQBIeD5cuX28qVK8d6GEEQTAAkPWRmyw+lj9OWL7cv/ayxe855uUO/7kgS9aiCIAiOcCa6OxJJaYMgCIJxTRiqIAiCYFwThioIgiAY14ShCoIgCMY1IaYIgiA40hmHaZEaIeTphxlJ24C1QzYsMxtP7RQcOvFdjgzxPY4M9XyPx5rZISUIlfSddK1G2G5mrzqU644kYajGOZJWjqf1DBOZ+C5HhvgeR4b4Husn5qiCIAiCcU0YqiAIgmBcE4Zq/HPrWA/gCCK+y5EhvseRIb7HOok5qiAIgmBcEx5VEARBMK4JQxUEQRCMa8JQjTGS3iVptaQuSQ9JumSI9mdKuk9Sp6QNkj4kaYIv5zt0GvkeJbVKuk3So5J6Jd17GIc67mnwu7xc0r9L2iSpI32nf3A4xzteafB7PE3SPZK2pParJH1UUvPhHPN4JQzVGCLpKrzq8EeBc/FS9t+WtGSA9lOB7wJbgPOBa4H3AdcdlgGPUxr9HoE80AX8HfBfh2WQE4RhfJcXAY8Bvw2cAfw9cKukNx+G4Y5bhvE99gBfAF4JnAy8B/hDvMjrUU+IKcYQSQ8Cj5rZH1Xsexb4upldX6P9O4FPAPPMrDPt+yBe0XixHaX/mY1+j1Xn/h1whpldPrqjnBgcyndZ0f5fgLyZvX6UhjnuGaHv8SbgQjO7cJSGOWEIj2qMSC79ecBdVYfuwp9Sa3Eh8MPMSCXuBBYCS0d6jBOBYX6PQQ1G8LucCuwaqXFNNEbie5R0AvAq4L6RHd3EJAzV2DEbD0Ftqdq/BZg/wDnzB2ifHTsaGc73GNTmkL9LSb8B/CpH9xqhYX+Pku6X1AU8C/wI+ItRGeEEIwzV2FMdrlONfUO1r7X/aKPR7zEYmGF9l5JeBnwFuNbMfjoaA5tgDOd7vAp4CfBm4Ergz0dhXBOOKPMxdmwHihz8hDWXg5/EMjYP0J5BzjnSGc73GNRm2N+lpIuBbwEfMrO/H53hTRiG/T2a2Qvpn09IygP/KOlvzKxv5Ic5cQiPaowwsx7gIWBF1aEVuEKoFg8Al0hqrWq/EVgz0mOcCAzzewxqMNzvUtKlwLeBG83s5lEb4ARhBP8mc7gzkR+hoU1czCy2MdpwN78HeBtwKi5n3Y/XoAH4GPC9ivbTcK/qq7gU+HXAXuBPx/qzTKTvMe07DTgnfZcr07/PGevPMtbbMP4mLwcOAH+DexDZNmesP8sE+x5/F/jvwCnAccAbgA3AV8f6s4yHLUJ/Y4iZ3S5pFvBBYAHwOHClmWWFFRcAx1e03yNpBfAZ/Oa6C/gkcNNhHfg4o9HvMfEt4NiK9w+n16N68fQwvsurgUnAe9OWsZajVIkKw/oe+4DrgRPxv8G1+O/8U4dt0OOYWEcVBEEQjGtijioIgiAY14ShCoIgCMY1YaiCIAiCcU0YqiAIgmBcE4YqCIIgGNeEoQqCIAjGNWGogmEj6TWSrqvad7kkk/SKsRrXSCJpafo8V4/1WIZDGvsNo9T3Qf//aX/2N3B5g/0ddJ6k90h63aGONZjYhKEKDoXXcJQXbTzKeQ21//9/jpek+XmD/dU67z14BpbgKCYyUwQTDklNQJ/FavVxiZntBX5yuM4LjnzCowqGhaTbgLcCi1K4xiStqWgySdLfSdouaZukL0maXtVHQdL1kp6S1C1po6RPVibdrQi9vUvSX0vaCHQD0yXdJmm9pOWpjk+npKclvTqde52kNZL2Svp3SXOqrv9uSQ9I2ilpt6SfZOeOwPdztqR/k7SjYlzXVxyXpD9J+3skbUrf19SqfkzShyVdK2m1pH2S7pN0elW7fGq3SVKHpHur26R2t1X9P2X775V0b9W+OZI+K+mF9P/zgqQvSmoZ7P+/OoSX+tgiqVDVf4ukXZJuHuC8NXiaq7dUXOM2Sb+d/n32AJ/jgVr/J8HEJTyqYLj8FTAHOB/4b2lfN544FzwJ53/idXVOBv4aL33w1oo+vgT8JvAJPKv0qanfpUB1GfMPAD8D3o5nk+5K+6cC/wT8LZ5F/gPAHZI+A5wE/DEwD7gZz532hoo+lwL/iGeeL6Sx/KekK83s2w18F/2QdAFwL/Ac8CfAejyH21kVzT6C53b7DPBNPEnuXwFnS7rMzEoVbX8HeBr4n0AzngD23yWdYuXyDzfgRfZuwivJLgf+4xA+wwz8/2Qm8GHgUbxMxW+lMQz0/1+LfwLeCbwSz7GY8RvAdOCLA5z32tT+EfzzAWzD8+BtBP4H8K6KMZ8MXAb8fj2fMZhAjHVW3Ngm7gbcBqyv2nc5XhzuC1X7/w43Lll+yUtSu9+raveWtP+c9H5pev/z7Nyq6xtwacW+s9K+p4F8xf6bgN7KfVV9ZSUV7gL+vWJ/dv2rG/hefgC8AEwa4PjM9F3cVrX/d9K1/lvFPsOrvTZV7PvttP+i9H4Gnpn7c1X9/Xlqd0PVd7amxpjuBe6teP+/8QeLcxv5/6/6G7i8Yt8zwD9XtfsG8MQQ560BvlTjGjcAe4DJVf/Hu4C2sf5txDayW4T+gtHiv6rePwa04N4NwKvwMgh3pBBgIYWG7krHL606/xuW7kZVHDCzH1S8fyq93m1mxar9BTxrNQCSzpP0n5K24Nmre/GaQSfX9QlrIGkS8DLgy2bWMUCzX8G/iy9V7f9qGsdlVfu/a2a9Fe8fS69L0uuZwGTgX2r0N1xeCfzMzB4esmV9fAn4LUlTACTNBH4d97aGw6141vY3pf5acW/9n8ys89CHG4wnwlAFo8XOqvdZWCibf5qLh5D24wYi27am47Oqzt80wHV2V74xL1oH/mRdSba/FUDSMcD3cO/mGuAiPIz1nYoxDocZ+O9q/SBtZqbXfp/JPIy3o+J4xlDfZWZ8q6vHHkqF41kM/hka5Yv4eH87vX8j0AR8eTidmdlG4N+Bd6Rd/x3/3v7h0IYZjEdijioYK3bg4a9LBji+ser9SCv8XoXPp73BzF68ISeP6FDYBZSARYO0yQzPfOCXFdcu4AZiR4PXzAzevMr+KHuvlXThDwjVVF93O4N/hoYws9WSfoyHN/9fer3XyqXXh8Nnge9JOg+fr/qhmT1x6KMNxhvhUQWHQjfQNsxzM89lmpmtrLFVG6qRJjNIL4bUJJ2Eh+2GTQr3/Qj4HUkDfTc/wb+7N1btvwp/eLyvwcs+ilfZfUPV/ur+wYUI8yTNznZIOp6Dw513ARfUUtZV0Oj//xeBy5Oq70LqC/sNeA0z+z7wJD439TLgcw2MJZhAhEcVHApPADMlvROvONw1RPsXMbN7Jf0z8HVJNwE/xT2RpcCVwJ+b2TMjP+QXuRufD/onSZ/Ew2c3Aus49Ae49+LG5oHU93q8vPg5ZnaNme1Mn/l6SQdwZdupuLruRxw8vzcoZrZb0qeAD0jahxuZ84E/rNH8a7hi78tpDLNx9eH2qnafwhWbd0v6MD4vNhtX/b3DzPZR4//fzB5jYP4F+D/4fFUncEcdH+8J4BJJvwFsBrab2ZqK45/DFabb6+wvmICERxUcCv+IT9h/FDc032zw/N/B1Vu/jc83fB14N65yO5T5lSExs1/iCsNjcRn3nwHvxxV7h9r3z/An/BeAT+OG6H30n/P5AJ7V4ddxGf/7cQ/j1dZfml4vN+D/D7+Lf55X4nL76rE9h3/fi3DV3Z+lcTxT1W53+gz/lsb2HeCTuHHP5vsa+v9PfX4zu3YydkNxPa7g/Bd8ecINVce/ll5vM7OB5PHBBCdK0QdBMGGR9Ee4gOKkZISDI5AI/QVBMOGQdBpwPB6u/UYYqSOb8KiCoE4kCc+KMSBWzhQRjCIp3dNFePaMNx8G8U0whoShCoI6SWq1e4Zotqxqsj8IgkMkDFUQ1EnKqjBU1opHKxYdB0EwAoShCoIgCMY1IU8PgiAIxjVhqIIgCIJxTRiqIAiCYFwThioIgiAY14ShCoIgCMY1/z8pv0XNjyCrwwAAAABJRU5ErkJggg==\",\n      \"text/plain\": [\n       \"<Figure size 432x360 with 2 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# set target range\\n\",\n    \"target_range = {'thermal_conductivity': (-np.inf, 0.12), 'linear_expansion': (-np.inf, 0.00015)}\\n\",\n    \"\\n\",\n    \"# import descriptor calculator and forward model to iQSPR\\n\",\n    \"prd_mdls = GaussianLogLikelihood(descriptor=fp_fcn, targets=target_range, **custom_mdls)\\n\",\n    \"\\n\",\n    \"# predict property values\\n\",\n    \"pred = prd_mdls.predict(data['SMILES'])\\n\",\n    \"print(pred.head())\\n\",\n    \"\\n\",\n    \"# calculate log-likelihood for a given target property region\\n\",\n    \"tmp_ll = prd_mdls.log_likelihood(data['SMILES'])\\n\",\n    \"tmp = tmp_ll.sum(axis = 1, skipna = True)\\n\",\n    \"\\n\",\n    \"# check the predicted likelihood\\n\",\n    \"dot_scale = 500\\n\",\n    \"l_std = np.sqrt(pred['thermal_conductivity: std']**2+pred['linear_expansion: std']**2)\\n\",\n    \"\\n\",\n    \"_ = plt.figure(figsize=(6,5))\\n\",\n    \"rectangle = plt.Rectangle((0,0),0.12,0.00015,fc='y',alpha=0.1)\\n\",\n    \"_ = plt.gca().add_patch(rectangle)\\n\",\n    \"im = plt.scatter(pred['thermal_conductivity: mean'], pred['linear_expansion: mean'], s=l_std*dot_scale, c=np.exp(tmp),alpha = 0.2,cmap=plt.get_cmap('cool'))\\n\",\n    \"_ = plt.title('MD data', fontsize=20)\\n\",\n    \"_ = plt.xlabel('thermal_conductivity', fontsize=16)\\n\",\n    \"_ = plt.ylabel('linear_expansion', fontsize=16)\\n\",\n    \"_ = plt.colorbar(im)\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 25,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# set up initial molecules for iQSPR-V\\n\",\n    \"init_samples = data['SMILES'].values\\n\",\n    \"\\n\",\n    \"# set up annealing schedule in iQSPR\\n\",\n    \"beta1 = np.hstack([np.linspace(0.01,0.2,15),np.linspace(0.21,0.4,5),np.linspace(0.4,1,5),np.linspace(1,1,5)])\\n\",\n    \"beta2 = np.hstack([np.linspace(0.2/15,0.2,15),np.linspace(0.21,0.4,5),np.linspace(0.4,1,5),np.linspace(1,1,5)])\\n\",\n    \"beta = pd.DataFrame({'thermal_conductivity': beta1, 'linear_expansion': beta2})\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 26,\n   \"metadata\": {\n    \"collapsed\": true,\n    \"jupyter\": {\n     \"outputs_hidden\": true\n    },\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:46:41] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"[23:46:41] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(cc(F)c1F)C(*)C* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:46:43] Can't kekulize mol.  Unkekulized atoms: 4 6 7 8 9\\n\",\n      \"[23:46:43] Can't kekulize mol.  Unkekulized atoms: 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(c(c(c(c1)C(*)(F)F)c1cccc(N2C(=O)c3ccc(C(*)=O)cc3C2=O)c1)C(*)=O)(C(F)(F)F)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:46:46] Can't kekulize mol.  Unkekulized atoms: 18 19 20 22 23\\n\",\n      \"[23:46:46] Can't kekulize mol.  Unkekulized atoms: 18 19 20 22 23\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *Oc1ccc(cc1)OC(=O)Oc1ccc(cc1)c1ccc(cc1)(c1ccc2c(c1)C(=O)N(c1ccc(Oc3ccc(*)cc3)cc1)C2=O)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:46:47] Can't kekulize mol.  Unkekulized atoms: 32 33 36 37 66\\n\",\n      \"[23:46:47] Can't kekulize mol.  Unkekulized atoms: 32 33 36 37 66\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cc2c(C(=O)N(C2=O)c2cc(ccc2)OCCOCCOc2cc(ccc2)N2C(=O)c3c(C2=O)cc(Oc2ccc4c(c2)C(=O)N(c2cccc(S(=O)(=O)c5cccc(*)c5)c2)C4=O)c3)ccc(Cl)c1F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:46:49] Explicit valence for atom # 5 C, 7, is greater than permitted\\n\",\n      \"[23:46:49] Explicit valence for atom # 5 C, 7, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(c(c(c(c1F)F)F)C)(c1ccccc1)(C(F)(F)F)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:46:50] Can't kekulize mol.  Unkekulized atoms: 4 6 7 8 9\\n\",\n      \"[23:46:50] Can't kekulize mol.  Unkekulized atoms: 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(ccc(c1)C*)(c1ccc2c(c1)C(=O)N(c1ccc(Oc3ccc(C(C)(C)c4ccc(Oc5ccc(*)cc5)cc4)cc3)cc1)C2=O)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:46:50] Can't kekulize mol.  Unkekulized atoms: 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1ccc(cc1)(C(F)(F)F)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"[23:46:50] Can't kekulize mol.  Unkekulized atoms: 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [23:46:50] Can't kekulize mol.  Unkekulized atoms: 16\\n\",\n      \"[23:46:50] Can't kekulize mol.  Unkekulized atoms: 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cccc(Oc2ccc(N3C(=O)c4cc5C(=O)N(*)C5=O)cc4)n(*)c(=O)c3cc2c1=O to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:46:53] Explicit valence for atom # 5 C, 6, is greater than permitted\\n\",\n      \"[23:46:53] Explicit valence for atom # 5 C, 6, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(cccc1)(c1ccc(OC(*)=O)cc1)c1ccc(OC(*)=O)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:46:53] Explicit valence for atom # 7 C, 5, is greater than permitted\\n\",\n      \"[23:46:53] Explicit valence for atom # 7 C, 5, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)OC(=O)C(C(C(C(F)(F)F)(F)F)(F)F)(F)(F)COC(=O)C(*)C* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:46:54] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 13 14\\n\",\n      \"[23:46:54] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 13 14\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(ccc(C(*)C*)cc1)c1ccc(Oc2ccc(S(=O)(=O)c3ccc(O*)cc3)cc2)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:46:59] non-ring atom 16 marked aromatic\\n\",\n      \"[23:46:59] non-ring atom 16 marked aromatic\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert c1c(*)cccc1S(=O)(=O)c1cccc(-n2c(=O)c3ccc4c(=O)n(-c5cccc(*)c5)c(=O)c4c(Oc4ccc(S(=O)(=O)c5ccc(Oc6ccc7c(c6)C(=O)N(*)C7=O)cc5)cc4)cc3)cc2c1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:46:59] Can't kekulize mol.  Unkekulized atoms: 54 55 56 58 59\\n\",\n      \"[23:46:59] Can't kekulize mol.  Unkekulized atoms: 54 55 56 58 59\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C1C(C2C(C1)C(C(C2)CC*)OC(=O)CCCCCCCCCCOc2ccc(cc2)c2ccc(cc2)C#N)OC(=O)CCCCCCCCCCOc2ccc(cc2)(C(F)(F)F)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:47:00] Explicit valence for atom # 5 C, 6, is greater than permitted\\n\",\n      \"[23:47:00] Explicit valence for atom # 5 C, 6, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(cc(c(c1)C)F)(c1ccc(O*)cc1)c1ccc(OC(*)=O)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:47:02] Can't kekulize mol.  Unkekulized atoms: 9 10 11 12 13 68 69\\n\",\n      \"[23:47:02] Can't kekulize mol.  Unkekulized atoms: 9 10 11 12 13 68 69\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert c1(*)cccc(S(=O)(=O)c2cccc(-n3c(=O)c4ccc5c(=O)n(-c6cccc(*)c6)c(=O)c5c(Oc5ccc(S(=O)(=O)c6ccc(Oc7ccc8c(c7)C(=O)N(*)C8=O)cc6)cc5)cc4c3=O)cc2)c1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:47:03] Can't kekulize mol.  Unkekulized atoms: 7 8 9 10 11 20 21\\n\",\n      \"[23:47:03] Can't kekulize mol.  Unkekulized atoms: 7 8 9 10 11 20 21\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)OC(=O)c1c(ccc(Oc2ccc(*)cc2)cc1)c1ccc(C(C)(C)c2ccc(Oc3ccc(*)cc3)cc2)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:47:07] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12\\n\",\n      \"[23:47:07] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1ccc(ccccc1)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:47:10] Explicit valence for atom # 5 C, 6, is greater than permitted\\n\",\n      \"[23:47:10] Explicit valence for atom # 5 C, 6, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(cccc1)(c1ccc(O*)cc1)c1ccc(O*)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:47:12] Explicit valence for atom # 5 C, 6, is greater than permitted\\n\",\n      \"[23:47:12] Explicit valence for atom # 5 C, 6, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(cccc(C(*)C*)c1)(c1ccc2c(c1)C(=O)N(c1ccc(Oc3cccc(*)c3)cc1)C2=O)c2ccc(OC(*)=O)cc2 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:47:12] Can't kekulize mol.  Unkekulized atoms: 16\\n\",\n      \"[23:47:12] Can't kekulize mol.  Unkekulized atoms: 16\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cccc(Oc2ccc(N3C(=O)c4cc5C(=O)N(*)C5=O)cc4)n(-c4ccc(Oc5cccc(*)c5)cc4)c(=O)c3cc2c(=O)n1* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:47:14] Explicit valence for atom # 8 C, 5, is greater than permitted\\n\",\n      \"[23:47:14] Explicit valence for atom # 8 C, 5, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)C(=O)OCC(C(F)(F)F)(F)(F)C(c1ccc2c(c1)C(=O)N(*)C2=O)(c2ccc1c(c2)C(=O)N(c2cccc(*)c2)C1=O)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:47:14] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 23 24\\n\",\n      \"[23:47:14] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 23 24\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cccc(-n2c(=O)c3cc4c(=O)n(*)c(=O)c4cc3c2=O)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:47:16] Explicit valence for atom # 5 C, 6, is greater than permitted\\n\",\n      \"[23:47:16] Explicit valence for atom # 5 C, 6, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(cccc(C(*)C*)c1)(c1ccc2c(c1)C(=O)N(c1ccc(Oc3cccc(*)c3)cc1)C2=O)c2ccc(O*)cc2 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:47:17] Can't kekulize mol.  Unkekulized atoms: 27 30 31 32 39 40 41\\n\",\n      \"[23:47:17] Can't kekulize mol.  Unkekulized atoms: 27 30 31 32 39 40 41\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cc2c(C(=O)N(C2=O)c2cc(ccc2)C(=O)c2cc(ccc2)N2C(=O)c3c(=O)c4cc5c(=O)n(*)c(=O)c5cc4c3=O)cc1C(=O)N(c1ccc(Oc3cccc(*)c3)cc1)C2=O to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:47:18] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 11 12\\n\",\n      \"[23:47:18] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 11 12\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(ccc(OC)cc1)c1ccc(Oc2ccc(-n3c(=O)c4cc5c(=O)n(*)c(=O)c5cc4c3=O)cc2)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:47:19] Explicit valence for atom # 5 C, 6, is greater than permitted\\n\",\n      \"[23:47:19] Explicit valence for atom # 5 C, 6, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(cccc(C(*)C*)c1)(c1ccc2c(c1)C(=O)N(c1ccc(Oc3cccc(*)c3)cc1)C2=O)c2ccc(OC(*)=O)cc2 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:47:20] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"[23:47:20] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1cc(c(ccc1)C*)N(C)CC to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:47:21] Explicit valence for atom # 6 C, 8, is greater than permitted\\n\",\n      \"[23:47:21] Explicit valence for atom # 6 C, 8, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1cc(cc(c2ccc(O*)cc2)C(=O)N(*)C1=O)(c1ccc2c(c1)C(=O)N(c1ccc(Oc3ccc(*)cc3)cc1)C2=O)(c2ccc(O*)cc2)c2ccc(OC(*)=O)cc2 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:47:23] Can't kekulize mol.  Unkekulized atoms: 6 7 8 9 12 58 59\\n\",\n      \"[23:47:23] Can't kekulize mol.  Unkekulized atoms: 6 7 8 9 12 58 59\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *CC(*)CNc1ccc(OC)c(-c2ccc(Oc3ccc(N4C(=O)c5ccc(C(c6ccc7c(c6)C(=O)N(*)C7=O)(C(F)(F)F)C(F)(F)F)cc5C4=O)cc3)cc2)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:47:23] Can't kekulize mol.  Unkekulized atoms: 4 5 6 8\\n\",\n      \"[23:47:23] Can't kekulize mol.  Unkekulized atoms: 4 5 6 8\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(c(c(c(c2cccc(*)c2)C(=O)N(*)C1=O)=O)C(*)C*)N(C)C to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:47:25] Can't kekulize mol.  Unkekulized atoms: 38 39 40 41 42\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert C(F)(F)(F)C1(c2ccc3c(c2)C(=O)N(c2ccc(Oc4cccc(*)c4)cc2)C3=O)C=CC=C(C(*)C*)ccccc1C to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"[23:47:25] Can't kekulize mol.  Unkekulized atoms: 38 39 40 41 42\\n\",\n      \"\\n\",\n      \"RDKit ERROR: [23:47:25] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 8 13 14 15 19 20 21 22 35 36 39 40 41\\n\",\n      \"[23:47:25] Can't kekulize mol.  Unkekulized atoms: 0 1 2 3 8 13 14 15 19 20 21 22 35 36 39 40 41\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert c1ccc(C(*)C*)c(COCCc2cc(C(C)(C)c3ccc(C(C)(C)c4ccc(O*)c(C)c4)cc3C2=O)ccc1C)C(C)(C)C(C)(C)C(=O)OC(*)C* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:47:27] Can't kekulize mol.  Unkekulized atoms: 4 5 6\\n\",\n      \"[23:47:27] Can't kekulize mol.  Unkekulized atoms: 4 5 6\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1cc(c2ccc(O*)cc2)C(=O)N(*)C1=O to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:47:30] Can't kekulize mol.  Unkekulized atoms: 5 6 7 8 9\\n\",\n      \"[23:47:30] Can't kekulize mol.  Unkekulized atoms: 5 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)Cc1c(ccc(c2ccc(Oc3ccc(NC(*)=O)cc3)cc2)C(=O)N(*)C1=O)C(*)C* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:47:30] Can't kekulize mol.  Unkekulized atoms: 4 6 7 8 9\\n\",\n      \"[23:47:30] Can't kekulize mol.  Unkekulized atoms: 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(cc(cc1C(*)C*)C*)(c1ccc(OC(*)=O)cc1)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:47:34] Can't kekulize mol.  Unkekulized atoms: 7 8 9\\n\",\n      \"[23:47:34] Can't kekulize mol.  Unkekulized atoms: 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)OC(=O)c1cc(c2ccc(Oc3cccc(*)c3)cc2)C(=O)N(c2ccc(Oc3ccc(*)cc3)cc2)C1=O to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:47:34] Can't kekulize mol.  Unkekulized atoms: 4 6 7 8 9\\n\",\n      \"[23:47:34] Can't kekulize mol.  Unkekulized atoms: 4 6 7 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(cccc1)(c1ccc2c(c1)C(=O)N(c1ccc(Oc3ccc(*)cc3)cc1)C2=O)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:47:34] Can't kekulize mol.  Unkekulized atoms: 4 5 6 8 9\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1ccc(cc1)(c1ccc2c(c1)C(=O)N(c1cccc(*)c1)C2=O)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"[23:47:34] Can't kekulize mol.  Unkekulized atoms: 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:47:37] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 19 20\\n\",\n      \"[23:47:37] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 19 20\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1ccc(ccc(Oc2ccc(*)cc2)cc1)N1CCOCC1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:47:37] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 9 22 23 24\\n\",\n      \"[23:47:37] Can't kekulize mol.  Unkekulized atoms: 1 2 3 4 5 9 22 23 24\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cccc(N2C(=O)c3cc4C(=O)N(*)C(=O)N(*)C4=O)c3cc2c(=O)n1-c1cccc(*)c1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:47:43] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 17 18\\n\",\n      \"[23:47:43] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 9 10 11 12 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *OC(=O)c1cc2c(cc1)ccc(C(*)C*)cc2 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:47:43] Can't kekulize mol.  Unkekulized atoms: 7 8 9 10 11 12 13\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)OC(=O)c1c(ccccc1)C(*)C* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"[23:47:43] Can't kekulize mol.  Unkekulized atoms: 7 8 9 10 11 12 13\\n\",\n      \"\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:47:47] Can't kekulize mol.  Unkekulized atoms: 6 7 8 9 22 23 24\\n\",\n      \"[23:47:47] Can't kekulize mol.  Unkekulized atoms: 6 7 8 9 22 23 24\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)N1Nc2ccc(Cc3ccc(NC(=O)O*)cc3)cc2c1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:47:48] Can't kekulize mol.  Unkekulized atoms: 0 1 2 34 35 36 37 77 78 79 80\\n\",\n      \"[23:47:48] Can't kekulize mol.  Unkekulized atoms: 0 1 2 34 35 36 37 77 78 79 80\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert c1cc(C(c2ccc(O*)cc2)(c2ccc(OC(=O)C(F)(F)C(F)(F)C(F)(F)C(F)(F)F)cc2)c2ccc(C(C)(Oc3ccc4c(c3)C(=O)N(c3ccc(Oc5cccc6c(Oc7ccc(*)cc7)cccc56)cc3)C4=O)cc2)cc1)CCC to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:47:54] Can't kekulize mol.  Unkekulized atoms: 16 17 19 20 21\\n\",\n      \"[23:47:54] Can't kekulize mol.  Unkekulized atoms: 16 17 19 20 21\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *Oc1c(cc(cc1)C(c1ccc(cc1)C(c1cc(c(cc1)C)(C(F)(F)F)C)c1ccc(NC(=O)OCc2cccc(C*)c2)cc1)O*)c1ccc(N2C(=O)c3ccc(C(c4ccc5c(c4)C(=O)N(*)C5=O)(C(F)(F)F)C(F)(F)F)cc3C2=O)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:47:57] Explicit valence for atom # 7 C, 6, is greater than permitted\\n\",\n      \"[23:47:57] Explicit valence for atom # 7 C, 6, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)CNc1c(cc(cc1)[N+](=O)NCCCCCC*)(c1ccc2c(c1)C(=O)N(c1ccc(Oc3cccc(*)c3)cc1)C2=O)c2ccc(OC(*)=O)cc2 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:48:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 10 11 12 13 14 15 18 19 20 21 22 23 27 28 31 32 33 34\\n\",\n      \"[23:48:00] Can't kekulize mol.  Unkekulized atoms: 1 2 3 10 11 12 13 14 15 18 19 20 21 22 23 27 28 31 32 33 34\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cc2c(C(=O)N(C2=O)c2cc(ccc2)C(=O)c2cc(ccc2)N2C(=O)c3c(C2=O)cc(cc3)C(=O)N(*)C1=O)(COC(*)C*)c1ccc(Oc3ccc(-n2c(=O)c4cc5c(=O)n(*)c(=O)c5cc4c2=O)cc3)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:48:00] Can't kekulize mol.  Unkekulized atoms: 32 33 36 37 51\\n\",\n      \"[23:48:00] Can't kekulize mol.  Unkekulized atoms: 32 33 36 37 51\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *c1cc2c(C(=O)N(C2=O)c2cc(ccc2)OCCOCCOc2cc(ccc2)N2C(=O)c3c(C2=O)cc(Oc2ccc4c(c2)C(=O)N(*)C4=O)c3)cc(C)cc1C to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:48:02] Explicit valence for atom # 1 C, 5, is greater than permitted\\n\",\n      \"[23:48:02] Explicit valence for atom # 1 C, 5, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(F)(c1c(F)c(F)c(F)c(F)c1F)(C(F)(F)F)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:48:02] Can't kekulize mol.  Unkekulized atoms: 0 5 6 7 11 19 20 21 22\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert c1(OC(*)=O)ccc(C(*)(F)c2c(F)c(F)c(F)F)cc2cc1C(=O)O* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"[23:48:02] Can't kekulize mol.  Unkekulized atoms: 0 5 6 7 11 19 20 21 22\\n\",\n      \"\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:48:08] Explicit valence for atom # 1 C, 5, is greater than permitted\\n\",\n      \"[23:48:08] Explicit valence for atom # 1 C, 5, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(F)(c1c(F)c(F)c(F)c(F)c1F)(C(F)(F)F)C(F)(F)F to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:48:10] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 17 18\\n\",\n      \"[23:48:10] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 17 18\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(ccc(C(=O)OCCCCC)cc1)c1ccc(OC(*)=O)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/pandas/core/series.py:1169: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  self._set_values(loc, value)\\n\",\n      \"RDKit ERROR: [23:48:16] Explicit valence for atom # 0 C, 5, is greater than permitted\\n\",\n      \"[23:48:16] Explicit valence for atom # 0 C, 5, is greater than permitted\\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert C(*)(F)(c1c(F)c(F)c(F)c(F)c1F)(c1ccc(O*)cc1)c1ccc(OC(*)=O)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:48:17] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 10 13\\n\",\n      \"[23:48:17] Can't kekulize mol.  Unkekulized atoms: 4 5 6 7 8 10 13\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1cc(cc(Br)c(OC)c1)c1ccc(S(=O)(=O)c2ccc(Oc3ccc(*)cc3)cc2)cc1 to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\",\n      \"RDKit ERROR: [23:48:17] Can't kekulize mol.  Unkekulized atoms: 4 5 6 8 9\\n\",\n      \"[23:48:17] Can't kekulize mol.  Unkekulized atoms: 4 5 6 8 9\\n\",\n      \"\\n\",\n      \"RDKit ERROR: \\n\",\n      \"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/xenonpy/inverse/iqspr/modifier.py:603: RuntimeWarning: can not convert *C(C*)c1c(cc(c(c1)C)(c1ccc(O*)cc1)F)C(*)C* to Mol\\n\",\n      \"  warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 1min 33s, sys: 1.63 s, total: 1min 34s\\n\",\n      \"Wall time: 1min 39s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"dir_out = 'output/演習22'\\n\",\n    \"os.makedirs(dir_out, exist_ok=True)\\n\",\n    \"\\n\",\n    \"# update NGram parameters for this exampleHOMO-LUMO gap\\n\",\n    \"n_gram.set_params(del_range=[1,20],max_len=300, reorder_prob=0.5, sample_order=(1,30))\\n\",\n    \"\\n\",\n    \"# set up likelihood and n-gram models in iQSPR\\n\",\n    \"iqspr_reorder = IQSPR_V(estimator=prd_mdls, modifier=n_gram)\\n\",\n    \"    \\n\",\n    \"np.random.seed(2022) # fix the random seed\\n\",\n    \"# main loop of iQSPR\\n\",\n    \"iqspr_samples1, iqspr_loglike1, iqspr_prob1, iqspr_freq1 = [], [], [], []\\n\",\n    \"for iStep, (s, ll, p, freq) in enumerate(iqspr_reorder(init_samples, beta, yield_lpf=True, ratio=0.5)):\\n\",\n    \"    iqspr_samples1.append(s)\\n\",\n    \"    iqspr_loglike1.append(ll)\\n\",\n    \"    iqspr_prob1.append(p)\\n\",\n    \"    iqspr_freq1.append(freq)\\n\",\n    \"# record all outputs\\n\",\n    \"iqspr_results_reorder = {\\n\",\n    \"    \\\"samples\\\": iqspr_samples1,\\n\",\n    \"    \\\"loglike\\\": iqspr_loglike1,\\n\",\n    \"    \\\"prob\\\": iqspr_prob1,\\n\",\n    \"    \\\"freq\\\": iqspr_freq1,\\n\",\n    \"    \\\"beta\\\": beta\\n\",\n    \"}\\n\",\n    \"# save results\\n\",\n    \"with open(f'{dir_out}/iQSPRV_results_case2.obj', 'wb') as f:\\n\",\n    \"    pk.dump(iqspr_results_reorder, f)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 27,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 720x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 720x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# plot the likelihood evolution\\n\",\n    \"\\n\",\n    \"# set up the min and max boundary for the plots\\n\",\n    \"tmp_list = [x.sum(axis = 1, skipna = True).values for x in iqspr_results_reorder[\\\"loglike\\\"]]\\n\",\n    \"flat_list = np.asarray([item for sublist in tmp_list for item in sublist])\\n\",\n    \"y_max, y_min = max(flat_list), min(flat_list)\\n\",\n    \"\\n\",\n    \"_ = plt.figure(figsize=(10,5))\\n\",\n    \"_ = plt.xlim(0,len(iqspr_results_reorder[\\\"loglike\\\"]))\\n\",\n    \"_ = plt.ylim(y_min,y_max)\\n\",\n    \"_ = plt.xlabel('Step')\\n\",\n    \"_ = plt.ylabel('Log-likelihood')\\n\",\n    \"for i, ll in enumerate(tmp_list):\\n\",\n    \"    _ = plt.scatter([i]*len(ll), ll ,s=10, c='b', alpha=0.2)\\n\",\n    \"_ = plt.show()\\n\",\n    \"#plt.savefig('iqspr_loglike_reorder.png',dpi = 500)\\n\",\n    \"#plt.close()\\n\",\n    \"\\n\",\n    \"y_max, y_min = np.exp(y_max), np.exp(y_min)\\n\",\n    \"_ = plt.figure(figsize=(10,5))\\n\",\n    \"_ = plt.xlim(0,len(iqspr_results_reorder[\\\"loglike\\\"]))\\n\",\n    \"_ = plt.ylim(y_min,y_max)\\n\",\n    \"_ = plt.xlabel('Step')\\n\",\n    \"_ = plt.ylabel('Likelihood')\\n\",\n    \"for i, ll in enumerate(tmp_list):\\n\",\n    \"    _ = plt.scatter([i]*len(ll), np.exp(ll) ,s=10, c='b', alpha=0.2)\\n\",\n    \"_ = plt.show()\\n\",\n    \"#plt.savefig('iqspr_like_reorder.png',dpi = 500)\\n\",\n    \"#plt.close()\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 28,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Range of std. dev.: (0.0500,0.0535)\\n\",\n      \"CPU times: user 9.28 s, sys: 304 ms, total: 9.58 s\\n\",\n      \"Wall time: 12.7 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# re-calculate the property values for the proposed molecules\\n\",\n    \"x_mean, x_std, y_mean, y_std = [], [], [], []\\n\",\n    \"r_std = []\\n\",\n    \"FPs_samples = []\\n\",\n    \"for i, smis in enumerate(iqspr_results_reorder[\\\"samples\\\"]):\\n\",\n    \"    tmp_fps = fp_fcn.transform(smis)\\n\",\n    \"    FPs_samples.append(tmp_fps)\\n\",\n    \"\\n\",\n    \"    tmp1, tmp2 = prd_mdls['thermal_conductivity'].predict(tmp_fps)\\n\",\n    \"    x_mean.append(tmp1)\\n\",\n    \"    x_std.append(tmp2)\\n\",\n    \"\\n\",\n    \"    tmp1, tmp2 = prd_mdls['linear_expansion'].predict(tmp_fps)\\n\",\n    \"    y_mean.append(tmp1)\\n\",\n    \"    y_std.append(tmp2)\\n\",\n    \"\\n\",\n    \"    r_std.append([np.sqrt(x_std[-1][i]**2 + y_std[-1][i]**2) for i in range(len(x_std[-1]))])\\n\",\n    \"\\n\",\n    \"# flatten the list for max/min calculation\\n\",\n    \"flat_list = [item for sublist in r_std for item in sublist]\\n\",\n    \"print('Range of std. dev.: (%.4f,%.4f)' % (min(flat_list),max(flat_list)))\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 29,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 8.14 s, sys: 134 ms, total: 8.27 s\\n\",\n      \"Wall time: 8.57 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"import os\\n\",\n    \"\\n\",\n    \"# prepare a folder to save all the figures\\n\",\n    \"ini_dir = 'output/演習22/iQSPRV_case2_prd/'\\n\",\n    \"if not os.path.exists(ini_dir):\\n\",\n    \"    os.makedirs(ini_dir)\\n\",\n    \"\\n\",\n    \"flat_list = np.asarray([item for sublist in r_std for item in sublist])\\n\",\n    \"s_max, s_min = max(flat_list), min(flat_list)\\n\",\n    \"flat_list = np.concatenate((data['thermal_conductivity'],\\n\",\n    \"    np.asarray([item for sublist in x_mean for item in sublist])))\\n\",\n    \"x_max, x_min = max(max(flat_list), 0.3), min(min(flat_list), 0)\\n\",\n    \"flat_list = np.concatenate((data['linear_expansion'],\\n\",\n    \"    np.asarray([item for sublist in y_mean for item in sublist])))\\n\",\n    \"y_max, y_min = max(flat_list), min(flat_list)\\n\",\n    \"tmp_beta = iqspr_results_reorder['beta']\\n\",\n    \"\\n\",\n    \"for i in range(len(r_std)):\\n\",\n    \"    dot_size = 45*((np.asarray(r_std[i])-s_min)/(s_max-s_min)) + 5\\n\",\n    \"\\n\",\n    \"    _ = plt.figure(figsize=(5,5))\\n\",\n    \"    rectangle = plt.Rectangle((0,0),0.12,0.00015,fc='y',alpha=0.1)\\n\",\n    \"    _ = plt.gca().add_patch(rectangle)\\n\",\n    \"    _ = plt.scatter(data['thermal_conductivity'], data['linear_expansion'],s=3, c='b', alpha=0.2)\\n\",\n    \"    _ = plt.scatter(x_mean[i], y_mean[i],s=dot_size, c='r', alpha=0.5)\\n\",\n    \"    _ = plt.title('Step: %i (beta = %.3f, %.3f)' % (i,tmp_beta.iloc[i,0],tmp_beta.iloc[i,1]))\\n\",\n    \"    _ = plt.xlim(x_min,x_max)\\n\",\n    \"    _ = plt.ylim(y_min,y_max)\\n\",\n    \"    _ = plt.xlabel('thermal_conductivity')\\n\",\n    \"    _ = plt.ylabel('linear_expansion')\\n\",\n    \"    #plt.show()\\n\",\n    \"    _ = plt.savefig(ini_dir+'Step_%02i.png' % i, dpi = 500)\\n\",\n    \"    _ = plt.close()\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 30,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"iVBORw0KGgoAAAANSUhEUgAAAX4AAAD8CAYAAABw1c+bAAAAOXRFWHRTb2Z0d2FyZQBNYXRwbG90bGliIHZlcnNpb24zLjUuMCwgaHR0cHM6Ly9tYXRwbG90bGliLm9yZy8/fFQqAAAACXBIWXMAAAsTAAALEwEAmpwYAAAT9UlEQVR4nO3df5Bd5X3f8fcHgYEJP+JUYkSjcWSPPQ2xcWlZZ2oMLoPBOCbtpKW1AxN+uDRMQ0cJlJrEgTqi0wkUEiyGkh+iTPHUQyEtTgzYDr9sQmoBieR6MA6YdgwEA5JWhAGJChvUb/84V8P1ZbV7d3V2V8vzfs2c2b3P8733Pt+96LNnzz33kKpCktSO/RZ7AZKkhWXwS1JjDH5JaozBL0mNMfglqTH7L/YCxrF8+fJavXr1Yi9DkpaUTZs2bauqFaPjSyL4V69ezcaNGxd7GZK0pCR5eqpxD/VIUmMMfklqjMEvSY0x+CWpMQa/JDXG4Jekxhj8ktQYg1+SGmPwS1JjlsQnd/fG6t/48qI871NXnrYozytJM3GPX5IaY/BLUmMMfklqjMEvSY0x+CWpMQa/JDXG4Jekxhj8ktQYg1+SGmPwS1JjZgz+JP86ySNJXh5sDyY5bWg+SdYmeS7JziT3J3nvyGMcmOS6JNuSvJLk9iSr5qMhSdL0xtnj/z7w68DfByaArwF/kuT9g/lLgIuBNcAHgK3APUkOHXqMdcDpwBnACcBhwJ1JlvXQgyRpFmYM/qr6UlV9tar+T1U9UVWXAtuBDyYJcCFwZVXdVlWPAucAhwJnAiQ5HDgP+HRV3VNV3wTOAt4PnDwvXUmS9mhWx/iTLEvyi8AhwAbgncBK4O7dNVW1E3gAOG4wdCxwwEjNM8BjQzVTPdf5STYm2Tg5OTmbZUqSpjFW8Cc5OskO4AfAHwD/pKq+TRf6AFtG7rJlaG4lsAvYNk3Nm1TV+qqaqKqJFStWjLNMSdIYxr0e/3eBY4AfpztW//kkJw7N10h9phgbNU6NJKlnY+3xV9UPB8f4N1bVZ4BvARcBmwclo3vuR/DGXwGbgWXA8mlqJEkLZK7n8e8HHAg8SRfsp+yeSHIQ3Zk7GwZDm4DXRmpWAUcN1UiSFsiMh3qSXAl8GXiGN87WORE4raoqyTrg0iSPA08AlwE7gJsBquqlJDcCVyfZCrwAXAM8Atzbd0OSpOmNc4x/JfCFwdeX6AL756rqrsH8VcDBwPXA24GHgY9W1fahx7gIeB24dVB7H3B2Ve3qowlJ0vhmDP6qOneG+QLWDrY91bxK9wGvNbNanSSpd16rR5IaY/BLUmMMfklqjMEvSY0x+CWpMQa/JDXG4Jekxhj8ktQYg1+SGmPwS1JjDH5JaozBL0mNMfglqTEGvyQ1xuCXpMYY/JLUGINfkhpj8EtSYwx+SWqMwS9JjTH4JakxMwZ/ks8k+cskLyeZTHJHkveN1NyUpEa2h0ZqDkxyXZJtSV5JcnuSVX03JEma3jh7/CcCvwccB5wEvA7cm+QnRuruBY4c2j4+Mr8OOB04AzgBOAy4M8myOa5dkjQH+89UUFWnDt9OchbwEvAh4I6hqR9U1eapHiPJ4cB5wKeq6p6hx3kaOBm4a06rlyTN2lyO8R86uN+LI+PHJ9ma5IkkNyQ5YmjuWOAA4O7dA1X1DPAY3V8SkqQFMpfgvxb4FvDg0NifAmcDHwEuBn4W+FqSAwfzK4FdwLaRx9oymHuTJOcn2Zhk4+Tk5ByWKUmayoyHeoYluQY4Hji+qnbtHq+qW4bKvp1kE91hnNOAL073kEBNNVFV64H1ABMTE1PWSJJmb+w9/iSfo3tj9qSq+t50tVX1HPB94D2Doc3AMmD5SOkRdHv9kqQFMlbwJ7kWOJMu9B8fo3458JPA84OhTcBrwClDNauAo4ANs1yzJGkvzHioJ8n1wFnALwAvJtl9TH5HVe1IcgiwFriNLuhXA1cAW4E/Bqiql5LcCFydZCvwAnAN8AjdaaCSpAUyzjH+CwZf7xsZv5wu8HcBR9O9ufvjdOH/deATVbV9qP4ius8A3AocPHi8s4ffK5Akzb9xzuPPDPM7gVOnqxnUvQqsGWySpEXitXokqTEGvyQ1xuCXpMYY/JLUGINfkhpj8EtSYwx+SWqMwS9JjTH4JakxBr8kNcbgl6TGGPyS1BiDX5IaY/BLUmMMfklqjMEvSY0x+CWpMQa/JDXG4Jekxhj8ktQYg1+SGjNj8Cf5TJK/TPJykskkdyR530hNkqxN8lySnUnuT/LekZoDk1yXZFuSV5LcnmRV3w1JkqY3zh7/icDvAccBJwGvA/cm+YmhmkuAi4E1wAeArcA9SQ4dqlkHnA6cAZwAHAbcmWTZ3rUgSZqN/WcqqKpTh28nOQt4CfgQcEeSABcCV1bVbYOac+jC/0zgD5McDpwHfKqq7hl6nKeBk4G7+mpIkjS9uRzjP3RwvxcHt98JrATu3l1QVTuBB+j+SgA4FjhgpOYZ4LGhGknSAphL8F8LfAt4cHB75eDrlpG6LUNzK4FdwLZpan5EkvOTbEyycXJycg7LlCRNZVbBn+Qa4Hjg9KraNTJdo+VTjL3pIfdUU1Xrq2qiqiZWrFgxm2VKkqYxdvAn+RzdG7MnVdX3hqY2D76O7rkfwRt/BWwGlgHLp6mRJC2AsYI/ybV0b9SeVFWPj0w/SRfspwzVH0R35s6GwdAm4LWRmlXAUUM1kqQFMONZPUmuB84CfgF4McnuPfsdVbWjqirJOuDSJI8DTwCXATuAmwGq6qUkNwJXJ9kKvABcAzwC3NtvS5Kk6cwY/MAFg6/3jYxfDqwdfH8VcDBwPfB24GHgo1W1faj+IrrPANw6qL0POHuK9wokSfNonPP4M0ZN0f0SWDtNzat0H/BaM/7yJEl981o9ktQYg1+SGmPwS1JjDH5JaozBL0mNMfglqTEGvyQ1xuCXpMYY/JLUGINfkhpj8EtSYwx+SWqMwS9JjTH4JakxBr8kNcbgl6TGGPyS1BiDX5IaY/BLUmMMfklqjMEvSY0ZK/iTfDjJ7UmeTVJJzh2Zv2kwPrw9NFJzYJLrkmxL8srg8Vb12IskaQzj7vEfAjwK/Bqwcw819wJHDm0fH5lfB5wOnAGcABwG3Jlk2eyWLEnaG/uPU1RVXwG+At3e/R7KflBVm6eaSHI4cB7wqaq6ZzB2FvA0cDJw1+yWLUmaqz6P8R+fZGuSJ5LckOSIobljgQOAu3cPVNUzwGPAcT2uQZI0g76C/0+Bs4GPABcDPwt8LcmBg/mVwC5g28j9tgzm3iTJ+Uk2Jtk4OTnZ0zIlSWMd6plJVd0ydPPbSTbRHcY5DfjiNHcNUHt4zPXAeoCJiYkpayRJszcvp3NW1XPA94H3DIY2A8uA5SOlR9Dt9UuSFsi8BH+S5cBPAs8PhjYBrwGnDNWsAo4CNszHGiRJUxvrUE+SQ4B3D27uB7wjyTHA3wy2tcBtdEG/GrgC2Ar8MUBVvZTkRuDqJFuBF4BrgEfoTgOVJC2Qcff4J4D/NdgOBi4ffP/v6d60PRr4EvAE8Hngu8AHq2r70GNcRHe8/1bgG8AO4B9V1a69b0OSNK5xz+O/n+6N2D05dYzHeBVYM9gkSYvEa/VIUmMMfklqjMEvSY0x+CWpMQa/JDXG4Jekxhj8ktQYg1+SGmPwS1JjDH5JaozBL0mNMfglqTEGvyQ1xuCXpMYY/JLUGINfkhpj8EtSYwx+SWqMwS9JjTH4JakxBr8kNWas4E/y4SS3J3k2SSU5d2Q+SdYmeS7JziT3J3nvSM2BSa5Lsi3JK4PHW9VjL5KkMYy7x38I8Cjwa8DOKeYvAS4G1gAfALYC9yQ5dKhmHXA6cAZwAnAYcGeSZXNauSRpTsYK/qr6SlX9ZlX9D+D/Dc8lCXAhcGVV3VZVjwLnAIcCZw5qDgfOAz5dVfdU1TeBs4D3Ayf31YwkaWZ9HON/J7ASuHv3QFXtBB4AjhsMHQscMFLzDPDYUI0kaQH0EfwrB1+3jIxvGZpbCewCtk1T8yOSnJ9kY5KNk5OTPSxTkgT9ntVTI7czxdioPdZU1fqqmqiqiRUrVvSxPkkS/QT/5sHX0T33I3jjr4DNwDJg+TQ1kqQF0EfwP0kX7KfsHkhyEN2ZOxsGQ5uA10ZqVgFHDdVIkhbA/uMUJTkEePfg5n7AO5IcA/xNVf11knXApUkeB54ALgN2ADcDVNVLSW4Erk6yFXgBuAZ4BLi3v3YkSTMZK/iBCeDrQ7cvH2yfB84FrgIOBq4H3g48DHy0qrYP3eci4HXg1kHtfcDZVbVrL9YvSZqlsYK/qu6neyN2T/MFrB1se6p5le4DXmtms0BJUr+8Vo8kNcbgl6TGGPyS1BiDX5IaY/BLUmMMfklqjMEvSY0x+CWpMQa/JDXG4Jekxhj8ktQYg1+SGmPwS1JjDH5JaozBL0mNMfglqTEGvyQ1xuCXpMYY/JLUGINfkhpj8EtSY3oJ/iRrk9TItnloPoOa55LsTHJ/kvf28dySpNnpc4//u8CRQ9vRQ3OXABcDa4APAFuBe5Ic2uPzS5LGsH+Pj/V6VW0eHUwS4ELgyqq6bTB2Dl34nwn8YY9rkCTNoM89/ncleTbJk0luSfKuwfg7gZXA3bsLq2on8ABwXI/PL0kaQ1/B/zBwLvBzwC/TBf2GJH9r8D3AlpH7bBmae5Mk5yfZmGTj5ORkT8uUJPVyqKeqvjp8O8lDwPeAc4CHdpeN3C1TjA0/5npgPcDExMQe6yRJszMvp3NW1Q7gO8B7gN3H/Uf37o/gzX8FSJLm2bwEf5KDgJ8GngeepAv/U0bmTwA2zMfzS5L2rJdDPUl+B7gD+Gu6Pfl/B/wY8PmqqiTrgEuTPA48AVwG7ABu7uP5JUnj6+t0zlXAfwOWA5N0x/X/QVU9PZi/CjgYuB54O92bwR+tqu09Pb8kaUx9vbn7izPMF7B2sEmSFpHX6pGkxhj8ktQYg1+SGtPntXo0ZPVvfHnRnvupK09btOdeLIv1827xZ62lzz1+SWqMwS9JjTH4JakxBr8kNcbgl6TGGPyS1BiDX5IaY/BLUmMMfklqjMEvSY0x+CWpMV6r5y1oMa8TJGnf5x6/JDXG4JekxnioR9oLXn5bS5F7/JLUGINfkhqz4Id6klwAfBo4EvgOcGFV/flCr0Na6vy/jmmuFnSPP8kngWuB3wb+HrAB+GqSdyzkOiSpZQu9x/9vgJuq6obB7TVJPgb8CvCZBV6LJI3lrfbX1YIFf5K3AccCvzMydTdw3EKtQ9Le8QOCS99C7vEvB5YBW0bGtwAnjxYnOR84f3BzR5Lv7sXzbpvjfZcS+3zraaVX+9yD/Me9fs6fmmpwMc7jr5HbmWKMqloPrN/bJ0uysaom9vZx9nX2+dbTSq/2ufAW8s3dbcAuYOXI+BG8+a8ASdI8WbDgr6ofApuAU0amTqE7u0eStAAW+lDPNcB/TfIXwDeAfwX8beAP5vE59/pw0RJhn289rfRqnwssVW86vD6/T9h9gOsSug9wPQpcVFUPLOgiJKlhCx78kqTF5bV6JKkxBr8kNWbJB3+SC5I8meTVJJuSnDBD/dFJ/izJziTPJvlskizUeudqNn0mOSjJTUkeSfJakvsXcKl7ZZZ9npjkS0meT/J/B/3+i4Vc71zNss+fSfL1JFsG9d9L8tuDT8Pv82b7b3Tofu9Jsj3JjvleYx9m+ZquTlJTbB9bkMVW1ZLdgE8CrwG/DBwFXAfsAN6xh/rDgM3AHwHvA04HtgMXL3YvPff5Y3RnSp0P/Alw/2L3ME99/ibwH4APAe+iu+bT68CZi91Lz32+GzgX+Lt0n8T8x3SffblqsXvpu9eh+72N7vTvLwM7FruPeXhNV9N9cPVUus827d7etiDrXewf2F7+sB8GbhgZ+9/AFXuo/xXgZeDgobHLgGcZvNG9L26z7XOk7j8toeCfc59D9X8E3LbYvSxAn9cADy52L/PVK/A54L8MfuEtheCfbRbtDv6JxVjvkj3UM3TRt7tHpqa76NsHgT+vqp1DY3fRfZZgdd9r7MMc+1xyeuzzMODFvtbVtz76TPJu4GPAn/W7un7NtdckpwE/D/zq/K2uP3v5mn4xydYk30jyz+ZlgVNYssHP9Bd9G70sxG4r91C/e25fNJc+l6K97jPJzwMfYR/6oMwU5txnkg1JXqXbk/yfdIe69mWz7jXJkcANwFlVtX1+l9ebubymO4B/C3wC+DhwH3Brkl+ar0UOeyv8z9bHuujbDPVTje9rZtvnUjWnPpN8CLgZ+NWq+ov5WFjP5tLnJ4FD6Y71Xw38OnBF/0vr3Wx6/QLw+1X10PwuaV6M3WdVbQN+d2hoY5LldB9u/cL8LO8NSzn453LRt817qGea+yy2Vi5uN+c+kxwPfAX4bFX9/vwsrzdz7rOqnhl8+1dJlgH/OcnVVfV6/8vsxVx6PQn4h0l+a3A7wH5JXgcuqO6qvfuavv6NPgx8qq9FTWfJHuqpuV307UHghCQHjdQ/BzzV9xr7MMc+l5y59pnkw8BXgcurat28LbAnPb6e+9HtuC3raWm9m2OvRwPHDG2fBXYOvv/v/a9y7/X4mh4DPN/Tsqa32O+G7+U76Z8Efgj8S7pTqK6lO3b2U4P5K4D7huoPp9vrv4XudM5/SneWz1I4nXPsPgdjP0P3H9ItwMbB98csdi89v54nAq/QHfYYPiVuxWL30nOfZwH/HPhputNWP0F3Jtoti91L371Ocf9zWRpn9cz2NT0HOHNQ+3fojvf/kO7aZfO/3sX+gfXwA7+Abm/9B3S/dT88NHcT8NRI/dHAA8CrdL9df4t9+FTOvejzKbrjiz+yLXYfffY5uP2mHkd/FvviNss+zwC+SfeZkx3Ad+je2D14odc9371Ocd8lEfxzeE3PAf6KbsflZbqds19aqLV6kTZJasySPcYvSZobg1+SGmPwS1JjDH5JaozBL0mNMfglqTEGvyQ1xuCXpMb8f4H8zZuteDTlAAAAAElFTkSuQmCC\",\n      \"text/plain\": [\n       \"<Figure size 432x288 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# extract all design candidates by removing some burn-in samples (user should remove all burn-in for a fully long iQSPR run)\\n\",\n    \"\\n\",\n    \"n_burn = 20\\n\",\n    \"\\n\",\n    \"# get the unique set of the candidates by converting all SMILES to canonical\\n\",\n    \"fin_cand, idx = np.unique([Chem.MolToSmiles(Chem.MolFromSmiles(x)) for x in np.concatenate(iqspr_results_reorder[\\\"samples\\\"][n_burn:])], return_index=True)\\n\",\n    \"# calculate likelihood and property values of the candidates\\n\",\n    \"fin_like = np.exp(np.concatenate([x.sum(axis=1) for x in iqspr_results_reorder[\\\"loglike\\\"][n_burn:]])[idx])\\n\",\n    \"fin_x_mu = np.concatenate(x_mean[n_burn:])[idx]\\n\",\n    \"fin_x_sig = np.concatenate(x_std[n_burn:])[idx]\\n\",\n    \"fin_y_mu = np.concatenate(y_mean[n_burn:])[idx]\\n\",\n    \"fin_y_sig = np.concatenate(y_std[n_burn:])[idx]\\n\",\n    \"\\n\",\n    \"# check the likelihood distribution of the candidates\\n\",\n    \"# note that many almost zero likelihood cases exist because of the continuous redrawing from the reservoir\\n\",\n    \"_ = plt.hist(fin_like)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 31,\n   \"metadata\": {\n    \"collapsed\": true,\n    \"jupyter\": {\n     \"outputs_hidden\": true\n    },\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 4.5 s, sys: 106 ms, total: 4.6 s\\n\",\n      \"Wall time: 4.62 s\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 206, in FpDensityMorgan1\\n\",\n      \"    def FpDensityMorgan1(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 1)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 209, in FpDensityMorgan2\\n\",\n      \"    def FpDensityMorgan2(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 2)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\",\n      \"Traceback (most recent call last):\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/ML/Descriptors/MoleculeDescriptors.py\\\", line 88, in CalcDescriptors\\n\",\n      \"    res[i] = fn(mol)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 212, in FpDensityMorgan3\\n\",\n      \"    def FpDensityMorgan3(x): return _FingerprintDensity(x, _rdMolDescriptors.GetMorganFingerprint, 3)\\n\",\n      \"  File \\\"/Users/stephenwu/opt/miniconda3/envs/iMacHome_xepy38_working/lib/python3.8/site-packages/rdkit/Chem/Descriptors.py\\\", line 203, in _FingerprintDensity\\n\",\n      \"    return float(val) / mol.GetNumHeavyAtoms()\\n\",\n      \"ZeroDivisionError: float division by zero\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# Draw the molecular structures of the candidates\\n\",\n    \"\\n\",\n    \"# prepare a folder to save all the figures\\n\",\n    \"ini_dir = 'output/演習22/iQSPRV_case2_smiles/'\\n\",\n    \"os.makedirs(ini_dir, exist_ok=True)\\n\",\n    \"\\n\",\n    \"n_total = 25 # plot the top 25 candidates with the highest likelihood\\n\",\n    \"n_S = 25 # each plot contains only 25 molecules\\n\",\n    \"idx = np.argsort(fin_like)[::-1][:n_total] # sort the candidates by likelihood values\\n\",\n    \"\\n\",\n    \"for i in range(0, n_total, n_S):\\n\",\n    \"    fig, ax = plt.subplots(5, 5)\\n\",\n    \"    fig.set_size_inches(20, 20)\\n\",\n    \"    fig.set_tight_layout(True)\\n\",\n    \"    for j in range(n_S):\\n\",\n    \"        xaxis = j // 5\\n\",\n    \"        yaxis = j % 5\\n\",\n    \"        try:\\n\",\n    \"            img = Draw.MolToImage(Chem.MolFromSmiles(fin_cand[idx][i+j]))\\n\",\n    \"            ax[xaxis, yaxis].clear()\\n\",\n    \"            ax[xaxis, yaxis].set_frame_on(False)\\n\",\n    \"            ax[xaxis, yaxis].imshow(img)\\n\",\n    \"            ax[xaxis, yaxis].text(1,10,'Thermal cond.: %4.3f W/mK' % (fin_x_mu[idx][i+j]),fontsize=14)\\n\",\n    \"            ax[xaxis, yaxis].text(1,40,'Linear exp.: %6.5f 1/K' % (fin_y_mu[idx][i+j]),fontsize=14)\\n\",\n    \"        except:\\n\",\n    \"            pass\\n\",\n    \"        ax[xaxis, yaxis].set_axis_off()\\n\",\n    \"    fig.savefig(f'{ini_dir}/No_{i}to{i+n_S}.png',dpi = 500)\\n\",\n    \"    plt.close()\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"フッ素の存在は高分子の熱伝導率を下がることがよく知られる。結果、iQSPRは素朴にこの情報を最大限に利用して、フッ素が入っている高分子を提案した。\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"iMacHome_xepy38_working\",\n   \"language\": \"python\",\n   \"name\": \"imachome_xepy38_working\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.8.12\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "mi_book/output/.gitkeep",
    "content": ""
  },
  {
    "path": "mi_book/retrieve_materials_project.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### サンプルデータの用意\\n\",\n    \"\\n\",\n    \"この演習は2,000個くらいの化学式が必要になる．我々は[`xenonpy.datatools.preset#build`](https://xenonpy.readthedocs.io/en/latest/xenonpy.datatools.html?highlight=build#xenonpy.datatools.preset.Preset.build)関数を利用して，[Materials Project](https://materialsproject.org)からサンプルデータをダウンロードすることをおすすめする．\\n\",\n    \"\\n\",\n    \"`build`関数を実行するためには，`Materials Project`のAPI keyを予め生成する必要があり．API Keyの生成に関しては，[The Materials API](https://materialsproject.org/open)を参考せよ．API Keyが用意できたら，下記のブロックを執行してサンプルデータをダウンロードしましょう．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"100%|██████████| 10/10 [00:15<00:00,  1.54s/it]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.datatools import preset\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"api_key = ''  # 自分が生成した api keyを入れてください\\n\",\n    \"preset.build('mp_samples', api_key=api_key)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"完成できれば，`preset.mp_samples`からデータを読み込めます．\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>band_gap</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>density</th>\\n\",\n       \"      <th>e_above_hull</th>\\n\",\n       \"      <th>efermi</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>final_energy_per_atom</th>\\n\",\n       \"      <th>formation_energy_per_atom</th>\\n\",\n       \"      <th>pretty_formula</th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"      <th>volume</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1013558</th>\\n\",\n       \"      <td>0.0759</td>\\n\",\n       \"      <td>{'Ca': 3.0, 'Bi': 1.0, 'P': 1.0}</td>\\n\",\n       \"      <td>3.744327</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>3.359477</td>\\n\",\n       \"      <td>[Ca, Bi, P]</td>\\n\",\n       \"      <td>-4.028126</td>\\n\",\n       \"      <td>-0.968508</td>\\n\",\n       \"      <td>Ca3BiP</td>\\n\",\n       \"      <td>[[0.       2.712928 2.712928] Ca, [2.712928 0....</td>\\n\",\n       \"      <td>159.736730</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1018025</th>\\n\",\n       \"      <td>2.1874</td>\\n\",\n       \"      <td>{'Lu': 1.0, 'Ag': 1.0, 'O': 2.0}</td>\\n\",\n       \"      <td>8.244933</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>1.097439</td>\\n\",\n       \"      <td>[Lu, Ag, O]</td>\\n\",\n       \"      <td>-6.680209</td>\\n\",\n       \"      <td>-2.719007</td>\\n\",\n       \"      <td>LuAgO2</td>\\n\",\n       \"      <td>[[9.269319 0.       1.463227] Lu, [0. 0. 0.] A...</td>\\n\",\n       \"      <td>63.407935</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1019105</th>\\n\",\n       \"      <td>0.3778</td>\\n\",\n       \"      <td>{'K': 2.0, 'Mg': 2.0, 'Bi': 2.0}</td>\\n\",\n       \"      <td>4.363566</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>2.351814</td>\\n\",\n       \"      <td>[K, Mg, Bi]</td>\\n\",\n       \"      <td>-2.668499</td>\\n\",\n       \"      <td>-0.470595</td>\\n\",\n       \"      <td>KMgBi</td>\\n\",\n       \"      <td>[[0.         2.470566   2.96732902] K, [2.4705...</td>\\n\",\n       \"      <td>207.309239</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1020108</th>\\n\",\n       \"      <td>2.9176</td>\\n\",\n       \"      <td>{'Li': 2.0, 'Ca': 2.0, 'Mg': 2.0, 'Si': 2.0, '...</td>\\n\",\n       \"      <td>2.836997</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>4.421869</td>\\n\",\n       \"      <td>[Ca, Li, Mg, N, Si]</td>\\n\",\n       \"      <td>-6.154151</td>\\n\",\n       \"      <td>-1.184710</td>\\n\",\n       \"      <td>LiCaMgSiN3</td>\\n\",\n       \"      <td>[[0.         3.84287093 0.55841303] Li, [0.   ...</td>\\n\",\n       \"      <td>165.561970</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1029828</th>\\n\",\n       \"      <td>0.1903</td>\\n\",\n       \"      <td>{'Rb': 8.0, 'Cr': 8.0, 'N': 16.0}</td>\\n\",\n       \"      <td>4.054140</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>2.684389</td>\\n\",\n       \"      <td>[Cr, N, Rb]</td>\\n\",\n       \"      <td>-7.294188</td>\\n\",\n       \"      <td>-0.659556</td>\\n\",\n       \"      <td>RbCrN2</td>\\n\",\n       \"      <td>[[4.32445575 1.02132711 0.        ] Rb, [1.441...</td>\\n\",\n       \"      <td>542.224040</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-976578</th>\\n\",\n       \"      <td>0.0764</td>\\n\",\n       \"      <td>{'Nd': 6.0, 'H': 18.0}</td>\\n\",\n       \"      <td>5.513675</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>2.265653</td>\\n\",\n       \"      <td>[H, Nd]</td>\\n\",\n       \"      <td>-4.278351</td>\\n\",\n       \"      <td>-0.656513</td>\\n\",\n       \"      <td>NdH3</td>\\n\",\n       \"      <td>[[ 2.21270916 -3.83252442  1.728452  ] Nd, [2....</td>\\n\",\n       \"      <td>266.109968</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-9856</th>\\n\",\n       \"      <td>1.4039</td>\\n\",\n       \"      <td>{'Cs': 4.0, 'Zr': 2.0, 'Se': 6.0}</td>\\n\",\n       \"      <td>4.213510</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>1.094516</td>\\n\",\n       \"      <td>[Cs, Se, Zr]</td>\\n\",\n       \"      <td>-4.850789</td>\\n\",\n       \"      <td>-1.379749</td>\\n\",\n       \"      <td>Cs2ZrSe3</td>\\n\",\n       \"      <td>[[6.38364976 2.10120553 1.8051275 ] Cs, [ 3.24...</td>\\n\",\n       \"      <td>468.122283</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-985829</th>\\n\",\n       \"      <td>1.2325</td>\\n\",\n       \"      <td>{'Hf': 1.0, 'S': 2.0}</td>\\n\",\n       \"      <td>5.322547</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>2.090667</td>\\n\",\n       \"      <td>[Hf, S]</td>\\n\",\n       \"      <td>-7.653706</td>\\n\",\n       \"      <td>-2.019318</td>\\n\",\n       \"      <td>HfS2</td>\\n\",\n       \"      <td>[[0. 0. 0.] Hf, [ 1.821683   -1.0517511   5.13...</td>\\n\",\n       \"      <td>75.693083</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-989541</th>\\n\",\n       \"      <td>4.1449</td>\\n\",\n       \"      <td>{'Rb': 2.0, 'Na': 1.0, 'Sb': 1.0, 'F': 6.0}</td>\\n\",\n       \"      <td>3.833036</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0.406167</td>\\n\",\n       \"      <td>[Rb, Na, Sb, F]</td>\\n\",\n       \"      <td>-4.497554</td>\\n\",\n       \"      <td>-2.904995</td>\\n\",\n       \"      <td>Rb2NaSbF6</td>\\n\",\n       \"      <td>[[6.7977255 6.7977255 6.7977255] Rb, [2.265908...</td>\\n\",\n       \"      <td>186.143163</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-998778</th>\\n\",\n       \"      <td>2.3054</td>\\n\",\n       \"      <td>{'Rb': 4.0, 'Sn': 4.0, 'Br': 12.0}</td>\\n\",\n       \"      <td>3.980406</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0.635824</td>\\n\",\n       \"      <td>[Br, Rb, Sn]</td>\\n\",\n       \"      <td>-3.183412</td>\\n\",\n       \"      <td>-1.206690</td>\\n\",\n       \"      <td>RbSnBr3</td>\\n\",\n       \"      <td>[[3.41489025 5.70463305 2.85529372] Rb, [ 1.13...</td>\\n\",\n       \"      <td>740.724732</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>2000 rows × 11 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            band_gap                                        composition  \\\\\\n\",\n       \"mp-1013558    0.0759                   {'Ca': 3.0, 'Bi': 1.0, 'P': 1.0}   \\n\",\n       \"mp-1018025    2.1874                   {'Lu': 1.0, 'Ag': 1.0, 'O': 2.0}   \\n\",\n       \"mp-1019105    0.3778                   {'K': 2.0, 'Mg': 2.0, 'Bi': 2.0}   \\n\",\n       \"mp-1020108    2.9176  {'Li': 2.0, 'Ca': 2.0, 'Mg': 2.0, 'Si': 2.0, '...   \\n\",\n       \"mp-1029828    0.1903                  {'Rb': 8.0, 'Cr': 8.0, 'N': 16.0}   \\n\",\n       \"...              ...                                                ...   \\n\",\n       \"mp-976578     0.0764                             {'Nd': 6.0, 'H': 18.0}   \\n\",\n       \"mp-9856       1.4039                  {'Cs': 4.0, 'Zr': 2.0, 'Se': 6.0}   \\n\",\n       \"mp-985829     1.2325                              {'Hf': 1.0, 'S': 2.0}   \\n\",\n       \"mp-989541     4.1449        {'Rb': 2.0, 'Na': 1.0, 'Sb': 1.0, 'F': 6.0}   \\n\",\n       \"mp-998778     2.3054                 {'Rb': 4.0, 'Sn': 4.0, 'Br': 12.0}   \\n\",\n       \"\\n\",\n       \"             density  e_above_hull    efermi             elements  \\\\\\n\",\n       \"mp-1013558  3.744327             0  3.359477          [Ca, Bi, P]   \\n\",\n       \"mp-1018025  8.244933             0  1.097439          [Lu, Ag, O]   \\n\",\n       \"mp-1019105  4.363566             0  2.351814          [K, Mg, Bi]   \\n\",\n       \"mp-1020108  2.836997             0  4.421869  [Ca, Li, Mg, N, Si]   \\n\",\n       \"mp-1029828  4.054140             0  2.684389          [Cr, N, Rb]   \\n\",\n       \"...              ...           ...       ...                  ...   \\n\",\n       \"mp-976578   5.513675             0  2.265653              [H, Nd]   \\n\",\n       \"mp-9856     4.213510             0  1.094516         [Cs, Se, Zr]   \\n\",\n       \"mp-985829   5.322547             0  2.090667              [Hf, S]   \\n\",\n       \"mp-989541   3.833036             0  0.406167      [Rb, Na, Sb, F]   \\n\",\n       \"mp-998778   3.980406             0  0.635824         [Br, Rb, Sn]   \\n\",\n       \"\\n\",\n       \"            final_energy_per_atom  formation_energy_per_atom pretty_formula  \\\\\\n\",\n       \"mp-1013558              -4.028126                  -0.968508         Ca3BiP   \\n\",\n       \"mp-1018025              -6.680209                  -2.719007         LuAgO2   \\n\",\n       \"mp-1019105              -2.668499                  -0.470595          KMgBi   \\n\",\n       \"mp-1020108              -6.154151                  -1.184710     LiCaMgSiN3   \\n\",\n       \"mp-1029828              -7.294188                  -0.659556         RbCrN2   \\n\",\n       \"...                           ...                        ...            ...   \\n\",\n       \"mp-976578               -4.278351                  -0.656513           NdH3   \\n\",\n       \"mp-9856                 -4.850789                  -1.379749       Cs2ZrSe3   \\n\",\n       \"mp-985829               -7.653706                  -2.019318           HfS2   \\n\",\n       \"mp-989541               -4.497554                  -2.904995      Rb2NaSbF6   \\n\",\n       \"mp-998778               -3.183412                  -1.206690        RbSnBr3   \\n\",\n       \"\\n\",\n       \"                                                    structure      volume  \\n\",\n       \"mp-1013558  [[0.       2.712928 2.712928] Ca, [2.712928 0....  159.736730  \\n\",\n       \"mp-1018025  [[9.269319 0.       1.463227] Lu, [0. 0. 0.] A...   63.407935  \\n\",\n       \"mp-1019105  [[0.         2.470566   2.96732902] K, [2.4705...  207.309239  \\n\",\n       \"mp-1020108  [[0.         3.84287093 0.55841303] Li, [0.   ...  165.561970  \\n\",\n       \"mp-1029828  [[4.32445575 1.02132711 0.        ] Rb, [1.441...  542.224040  \\n\",\n       \"...                                                       ...         ...  \\n\",\n       \"mp-976578   [[ 2.21270916 -3.83252442  1.728452  ] Nd, [2....  266.109968  \\n\",\n       \"mp-9856     [[6.38364976 2.10120553 1.8051275 ] Cs, [ 3.24...  468.122283  \\n\",\n       \"mp-985829   [[0. 0. 0.] Hf, [ 1.821683   -1.0517511   5.13...   75.693083  \\n\",\n       \"mp-989541   [[6.7977255 6.7977255 6.7977255] Rb, [2.265908...  186.143163  \\n\",\n       \"mp-998778   [[3.41489025 5.70463305 2.85529372] Rb, [ 1.13...  740.724732  \\n\",\n       \"\\n\",\n       \"[2000 rows x 11 columns]\"\n      ]\n     },\n     \"execution_count\": 2,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"preset.mp_samples\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"サンプルデータの詳細については，チュートリアルの[\\\"Sample data\\\"](https://xenonpy.readthedocs.io/en/latest/tutorial.html#sample-data)にて確認せよ．\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"interpreter\": {\n   \"hash\": \"93169193031bed5a34de5405a805c1cdfe217db623a6098111020ecff952ad9d\"\n  },\n  \"kernelspec\": {\n   \"display_name\": \"Python 3.8.13 ('xepy38')\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.8.13\"\n  },\n  \"orig_nbformat\": 4\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 2\n}\n"
  },
  {
    "path": "mi_book/tools.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# Tools\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 34,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import numpy as np\\n\",\n    \"from matplotlib.ticker import FormatStrFormatter, PercentFormatter\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"#割合(x,y,z)[%]をXY座標に変換 convert rate(x,y,z)[%] into XY-coordinate\\n\",\n    \"def transform_xy(x, y, z=None):\\n\",\n    \"    if z is None:\\n\",\n    \"        z = 100 - x - y\\n\",\n    \"    h = np.sqrt(3) * 0.5\\n\",\n    \"    x_ = (z / 100) + (x / 100) / 2\\n\",\n    \"    y_ = (x / 100) * h\\n\",\n    \"    \\n\",\n    \"    return x_, y_\\n\",\n    \"\\n\",\n    \"def transform_xy_halfsize(x, y, z=None):\\n\",\n    \"    if z is None:\\n\",\n    \"        z = 100 - x - y\\n\",\n    \"    h = np.sqrt(3) * 0.5\\n\",\n    \"    x_ = (z / 100) * 2 + (x / 100) * 2 / 2 - 0.5\\n\",\n    \"    y_ = (x / 100) * 2 * h - h\\n\",\n    \"    \\n\",\n    \"    xy = np.stack([x_, y_])\\n\",\n    \"    idx = (xy >= 0).all(axis=0)\\n\",\n    \"    xy = xy[..., idx]\\n\",\n    \"    \\n\",\n    \"    return xy[0], xy[1], idx\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"#plot Triangle\\n\",\n    \"def plot_tri(x,y,z,d, label_x,label_y,label_z, *additional_points, show_cbar=True, cbarlabel=None, percentage=False, reduce_ticks=False, ax=None, half_size=False, cbar_kw={}, **kwargs):\\n\",\n    \"    import matplotlib.pyplot as plt\\n\",\n    \"\\n\",\n    \"    \\n\",\n    \"    if not ax:\\n\",\n    \"        fig, ax = plt.subplots(dpi=150)\\n\",\n    \"    else:\\n\",\n    \"        fig = ax.get_figure()\\n\",\n    \"        \\n\",\n    \"    l = len(d)\\n\",\n    \"    ax.set_aspect('equal', 'datalim')\\n\",\n    \"    ax.tick_params(labelbottom=False, labelleft=False, labelright=False, labeltop=False)\\n\",\n    \"    ax.tick_params(bottom=False, left=False, right=False, top=False)\\n\",\n    \"    ax.spines['bottom'].set_visible(False)\\n\",\n    \"    ax.spines['left'].set_visible(False)\\n\",\n    \"    ax.spines['right'].set_visible(False)\\n\",\n    \"    ax.spines['top'].set_visible(False)\\n\",\n    \"    h = np.sqrt(3.0)*0.5\\n\",\n    \"\\n\",\n    \"    #外周-三角\\n\",\n    \"    ax.plot([0.0, 1.0],[0.0, 0.0], 'k-', lw=2)\\n\",\n    \"    ax.plot([0.0, 0.5],[0.0, h], 'k-', lw=2)\\n\",\n    \"    ax.plot([1.0, 0.5],[0.0, h], 'k-', lw=2)\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"    #内側目盛\\n\",\n    \"    for i in range(1,10):\\n\",\n    \"        ax.plot([i/20.0, 1.0-i/20.0],[h*i/10.0, h*i/10.0], color='gray', lw=0.5,ls=\\\"-\\\")\\n\",\n    \"        ax.plot([1.0-i/20.0-0.025, 1.0-i/20.0],[h*i/10.0, h*i/10.0], color='black', lw=2,ls=\\\"-\\\")\\n\",\n    \"\\n\",\n    \"        ax.plot([i/20.0, i/10.0],[h*i/10.0, 0.0], color='gray', lw=0.5)\\n\",\n    \"        ax.plot([i/20.0, i/20+0.05/4],[h*i/10.0, h*i/10-h/10*0.25], color='black', lw=2)\\n\",\n    \"\\n\",\n    \"        ax.plot([0.5+i/20.0, i/10.0],[h*(1.0-i/10.0), 0.0], color='gray', lw=0.5)\\n\",\n    \"        ax.plot([i/10.0+0.025/2, i/10.0],[h/40, 0.0], color='black', lw=2)\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"    #頂点のラベル\\n\",\n    \"    ax.text(0.75+0.25/2+0.01, h/2, label_x, fontsize='xx-large', rotation=0)#x\\n\",\n    \"    ax.text(0.25/2-0.13, h/2, label_y, fontsize='xx-large')#y\\n\",\n    \"    ax.text(0.5-0.05, -0.17, label_z, fontsize='xx-large', rotation=0)#z\\n\",\n    \"\\n\",\n    \"    #軸ラベル\\n\",\n    \"    step = 2 if reduce_ticks else 1\\n\",\n    \"    interval = 5 if half_size else 10\\n\",\n    \"    shift = 50 if half_size else 0\\n\",\n    \"    for i in range(0,11, step):\\n\",\n    \"        r = i*interval\\n\",\n    \"        ax.text((10-i)/20.0-0.01, h*(10-i)/10.0, '%d' % r, fontsize='medium', rotation=0,horizontalalignment='right') #x\\n\",\n    \"        ax.text(0.5+(10-i)/20.0+0.01, h*(1.0-(10-i)/10.0), '%d' % (r + shift), fontsize='medium',horizontalalignment='left')#y\\n\",\n    \"        ax.text(i/10.0-0.03, -0.07, '%d' % r, fontsize='medium', rotation=0) #z\\n\",\n    \"        \\n\",\n    \"    if half_size:\\n\",\n    \"        X, Y, idx = transform_xy_halfsize(x,y,z)\\n\",\n    \"        d = d[idx]\\n\",\n    \"    else:\\n\",\n    \"        X, Y = transform_xy(x, y, z)\\n\",\n    \"\\n\",\n    \"    sca = ax.scatter(X, Y, c=d, s=5, alpha=0.8, **kwargs)\\n\",\n    \"    \\n\",\n    \"    for fn in additional_points:\\n\",\n    \"        fn(ax)\\n\",\n    \"\\n\",\n    \"    # Create colorbar\\n\",\n    \"    if show_cbar:\\n\",\n    \"        cbar = ax.figure.colorbar(sca, ax=ax, **cbar_kw)\\n\",\n    \"        if percentage:\\n\",\n    \"            cbar.ax.yaxis.set_major_formatter(PercentFormatter(1))\\n\",\n    \"        if cbarlabel is not None:\\n\",\n    \"            cbar.ax.set_ylabel(cbarlabel, rotation=-90, va=\\\"bottom\\\", fontsize='x-large')\\n\",\n    \"\\n\",\n    \"    fig.tight_layout()\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from itertools import product\\n\",\n    \"\\n\",\n    \"class ConfusionMatrixDisplay:\\n\",\n    \"    \\\"\\\"\\\"Confusion Matrix visualization.\\n\",\n    \"    It is recommend to use :func:`~sklearn.metrics.plot_confusion_matrix` to\\n\",\n    \"    create a :class:`ConfusionMatrixDisplay`. All parameters are stored as\\n\",\n    \"    attributes.\\n\",\n    \"    Read more in the :ref:`User Guide <visualizations>`.\\n\",\n    \"    Parameters\\n\",\n    \"    ----------\\n\",\n    \"    confusion_matrix : ndarray of shape (n_classes, n_classes)\\n\",\n    \"        Confusion matrix.\\n\",\n    \"    display_labels : ndarray of shape (n_classes,)\\n\",\n    \"        Display labels for plot.\\n\",\n    \"    Attributes\\n\",\n    \"    ----------\\n\",\n    \"    im_ : matplotlib AxesImage\\n\",\n    \"        Image representing the confusion matrix.\\n\",\n    \"    text_ : ndarray of shape (n_classes, n_classes), dtype=matplotlib Text, \\\\\\n\",\n    \"            or None\\n\",\n    \"        Array of matplotlib axes. `None` if `include_values` is false.\\n\",\n    \"    ax_ : matplotlib Axes\\n\",\n    \"        Axes with confusion matrix.\\n\",\n    \"    figure_ : matplotlib Figure\\n\",\n    \"        Figure containing the confusion matrix.\\n\",\n    \"    \\\"\\\"\\\"\\n\",\n    \"    def __init__(self, confusion_matrix, display_labels):\\n\",\n    \"        self.confusion_matrix = confusion_matrix\\n\",\n    \"        self.display_labels = display_labels\\n\",\n    \"\\n\",\n    \"    def plot(self, *, include_values=True, cmap='viridis',\\n\",\n    \"             xticks_rotation='horizontal', values_format=None, ax=None, anno_fontsize=14, tick_fontsize=14, label_fontsize=20):\\n\",\n    \"        \\\"\\\"\\\"Plot visualization.\\n\",\n    \"        Parameters\\n\",\n    \"        ----------\\n\",\n    \"        include_values : bool, default=True\\n\",\n    \"            Includes values in confusion matrix.\\n\",\n    \"        cmap : str or matplotlib Colormap, default='viridis'\\n\",\n    \"            Colormap recognized by matplotlib.\\n\",\n    \"        xticks_rotation : {'vertical', 'horizontal'} or float, \\\\\\n\",\n    \"                         default='vertical'\\n\",\n    \"            Rotation of xtick labels.\\n\",\n    \"        values_format : str, default=None\\n\",\n    \"            Format specification for values in confusion matrix. If `None`,\\n\",\n    \"            the format specification is '.2f' for a normalized matrix, and\\n\",\n    \"            'd' for a unnormalized matrix.\\n\",\n    \"        ax : matplotlib axes, default=None\\n\",\n    \"            Axes object to plot on. If `None`, a new figure and axes is\\n\",\n    \"            created.\\n\",\n    \"        Returns\\n\",\n    \"        -------\\n\",\n    \"        display : :class:`~sklearn.metrics.ConfusionMatrixDisplay`\\n\",\n    \"        \\\"\\\"\\\"\\n\",\n    \"        import matplotlib.pyplot as plt\\n\",\n    \"\\n\",\n    \"        if ax is None:\\n\",\n    \"            fig, ax = plt.subplots()\\n\",\n    \"        else:\\n\",\n    \"            fig = ax.figure\\n\",\n    \"\\n\",\n    \"        cm = self.confusion_matrix\\n\",\n    \"        n_classes = cm.shape[0]\\n\",\n    \"        self.im_ = ax.imshow(cm, interpolation='nearest', cmap=cmap)\\n\",\n    \"        self.text_ = None\\n\",\n    \"\\n\",\n    \"        cmap_min, cmap_max = self.im_.cmap(0), self.im_.cmap(256)\\n\",\n    \"\\n\",\n    \"        if include_values:\\n\",\n    \"            self.text_ = np.empty_like(cm, dtype=object)\\n\",\n    \"            if values_format is None:\\n\",\n    \"                values_format = '.2g'\\n\",\n    \"\\n\",\n    \"            # print text with appropriate color depending on background\\n\",\n    \"            thresh = (cm.max() - cm.min()) / 2.\\n\",\n    \"            for i, j in product(range(n_classes), range(n_classes)):\\n\",\n    \"                color = cmap_max if cm[i, j] < thresh else cmap_min\\n\",\n    \"                self.text_[i, j] = ax.text(j, i,\\n\",\n    \"                                           format(cm[i, j], values_format),\\n\",\n    \"                                           ha=\\\"center\\\", va=\\\"center\\\",\\n\",\n    \"                                           color=color, fontsize=anno_fontsize)\\n\",\n    \"\\n\",\n    \"        cbar = fig.colorbar(self.im_, ax=ax)\\n\",\n    \"        cbar.ax.tick_params(labelsize=anno_fontsize) \\n\",\n    \"        ax.set(xticks=np.arange(n_classes),\\n\",\n    \"               yticks=np.arange(n_classes),\\n\",\n    \"               xticklabels=self.display_labels,\\n\",\n    \"               yticklabels=self.display_labels,\\n\",\n    \"               ylabel=\\\"True label\\\",\\n\",\n    \"               xlabel=\\\"Predicted label\\\")\\n\",\n    \"\\n\",\n    \"        ax.set_ylim((n_classes - 0.5, -0.5))\\n\",\n    \"        plt.setp(ax.get_xticklabels(), rotation=xticks_rotation)\\n\",\n    \"\\n\",\n    \"        ax.xaxis.label.set_size(label_fontsize)\\n\",\n    \"        ax.yaxis.label.set_size(label_fontsize)\\n\",\n    \"        ax.tick_params(labelsize=tick_fontsize)\\n\",\n    \"        \\n\",\n    \"        self.figure_ = fig\\n\",\n    \"        self.ax_ = ax\\n\",\n    \"        return self\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [],\n   \"source\": [\n    \"def make_virtual_compounds(*elements, interval=0.5, pen_size=10, **element_ratio):\\n\",\n    \"    dim = len(elements)\\n\",\n    \"    \\n\",\n    \"    # for list type\\n\",\n    \"    if dim != 0:\\n\",\n    \"        # elements and element_ratio are mutually exclusive\\n\",\n    \"        if len(element_ratio) != 0:\\n\",\n    \"            raise ValueError('elements and element_ratio are mutually exclusive')\\n\",\n    \"\\n\",\n    \"        # sort elements in the alphabetical order\\n\",\n    \"        elements = tuple(sorted(tuple(set(elements))))\\n\",\n    \"        \\n\",\n    \"        # generate mesh\\n\",\n    \"        grid = np.arange(0, 100, interval)\\n\",\n    \"        mesh = np.array(np.meshgrid(*([grid] * dim))).T.reshape(-1, dim)\\n\",\n    \"\\n\",\n    \"    # for dict type\\n\",\n    \"    else:\\n\",\n    \"        if len(element_ratio) == 0:\\n\",\n    \"            return None\\n\",\n    \"\\n\",\n    \"        # sort elements in the alphabetical order\\n\",\n    \"        dim = len(element_ratio)\\n\",\n    \"        elements, ratios = zip(*[(k, element_ratio[k]) for k in sorted(element_ratio.keys())])\\n\",\n    \"        \\n\",\n    \"        # generate mesh\\n\",\n    \"        s = [np.arange(max(r - pen_size, 0), min(r + pen_size, 100), interval) for r in ratios]\\n\",\n    \"        mesh = np.array(np.meshgrid(*s)).T.reshape(-1, dim)\\n\",\n    \"    \\n\",\n    \"    # select the only ratios have sum equal to 100\\n\",\n    \"    mesh = mesh[mesh.sum(1) == 100]\\n\",\n    \"\\n\",\n    \"    # assign element\\n\",\n    \"    comps = [{e:f for e, f in zip(elements, frac_compositon) } for frac_compositon in mesh]\\n\",\n    \"    # save as pandas dataframe\\n\",\n    \"    return pd.DataFrame({'composition': comps, 'elements': [elements] * mesh.shape[0]})\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import numpy as np\\n\",\n    \"import pandas as pd\\n\",\n    \"from typing import Union, List\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"from sklearn.metrics import f1_score, recall_score, precision_score, accuracy_score\\n\",\n    \"from sklearn.utils.class_weight import compute_sample_weight\\n\",\n    \"\\n\",\n    \"def classification_metrics(\\n\",\n    \"        y_true: Union[np.ndarray, pd.DataFrame, pd.Series],\\n\",\n    \"        y_pred: Union[np.ndarray, pd.Series],\\n\",\n    \"        *,\\n\",\n    \"        average: Union[None, List[str]] = ['weighted', 'micro', 'macro'],\\n\",\n    \"        labels = None,\\n\",\n    \") -> dict:\\n\",\n    \"    \\\"\\\"\\\"\\n\",\n    \"    Calculate most common classification scores.\\n\",\n    \"    See Also: https://scikit-learn.org/stable/modules/model_evaluation.html\\n\",\n    \"    \\n\",\n    \"    Parameters\\n\",\n    \"    ----------\\n\",\n    \"    y_true\\n\",\n    \"        True results.\\n\",\n    \"    y_pred\\n\",\n    \"        Predicted results.\\n\",\n    \"        \\n\",\n    \"    Returns\\n\",\n    \"    -------\\n\",\n    \"    OrderedDict\\n\",\n    \"        An :class:`collections.OrderedDict` contains classification scores.\\n\",\n    \"        These scores will be calculated: ``accuracy``, ``f1``, ``precision``, ``recall``,\\n\",\n    \"        ``macro_f1``, ``macro_precision``, and ``macro_recall``\\n\",\n    \"    \\\"\\\"\\\"\\n\",\n    \"    if average is not None and len(average) == 0:\\n\",\n    \"        raise ValueError('need average')\\n\",\n    \"    \\n\",\n    \"    if len(y_true.shape) != 1:\\n\",\n    \"        y_true = np.argmax(y_true, 1)\\n\",\n    \"    if len(y_pred.shape) != 1:\\n\",\n    \"        y_pred = np.argmax(y_pred, 1)\\n\",\n    \"\\n\",\n    \"    mask = ~np.isnan(y_pred)\\n\",\n    \"    y_true = y_true[mask]\\n\",\n    \"    y_pred = y_pred[mask]\\n\",\n    \"    \\n\",\n    \"    ret = dict(\\n\",\n    \"        accuracy = accuracy_score(y_true, y_pred)\\n\",\n    \"    )\\n\",\n    \"    \\n\",\n    \"    if average is None:\\n\",\n    \"        ret.update(\\n\",\n    \"            f1 = f1_score(y_true, y_pred, average=None, labels=labels),\\n\",\n    \"            precision = precision_score(y_true, y_pred, average=None, labels=labels),\\n\",\n    \"            recall = recall_score(y_true, y_pred, average=None, labels=labels),\\n\",\n    \"        )\\n\",\n    \"        \\n\",\n    \"        return ret\\n\",\n    \"    \\n\",\n    \"    if 'weighted' in average:\\n\",\n    \"        ret.update(\\n\",\n    \"            f1 = f1_score(y_true, y_pred, average='weighted', labels=labels),\\n\",\n    \"            precision = precision_score(y_true, y_pred, average='weighted', labels=labels),\\n\",\n    \"            recall = recall_score(y_true, y_pred, average='weighted', labels=labels),\\n\",\n    \"        )\\n\",\n    \"        \\n\",\n    \"    if 'micro' in average:\\n\",\n    \"        ret.update(\\n\",\n    \"            micro_f1 = f1_score(y_true, y_pred, average='micro', labels=labels),\\n\",\n    \"            micro_precision = precision_score(y_true, y_pred, average='micro', labels=labels),\\n\",\n    \"            micro_recall = recall_score(y_true, y_pred, average='micro', labels=labels),\\n\",\n    \"        )\\n\",\n    \"    \\n\",\n    \"    if 'macro' in average:\\n\",\n    \"        ret.update(\\n\",\n    \"            macro_f1 = f1_score(y_true, y_pred, average='macro', labels=labels),\\n\",\n    \"            macro_precision = precision_score(y_true, y_pred, average='macro', labels=labels),\\n\",\n    \"            macro_recall = recall_score(y_true, y_pred, average='macro', labels=labels),\\n\",\n    \"        )\\n\",\n    \"    \\n\",\n    \"    return ret\\n\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3 (ipykernel)\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.8.10\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "requirements.txt",
    "content": "###### Requirements without Version Specifiers ######\ntqdm\nseaborn\nplotly\nrequests\nruamel.yaml\nmordred\nDeprecated\n\n###### Requirements with Version Specifiers ######\npandas >= 1.1.3\npymatgen >= 2020.10.09\nscikit-learn >= 0.23.0\nscipy >= 1.5.0\ntorch >= 1.7.0\njoblib >= 0.13.0\n"
  },
  {
    "path": "samples/CSP_with_element_substitution.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"## CSP using the crystal structure generator based on element substitution\\n\",\n    \"\\n\",\n    \"The following example predicts the stable crystal structure of a compound with its chemical composition. As described in our paper, the workflow consists of four steps:\\n\",\n    \"\\n\",\n    \"1. Find all possible template structures of the given query composition from a crystal structure database (Materials Project was used in this study).\\n\",\n    \"2. Replace elements in template structures with those in the query composition to generate a virtual library.\\n\",\n    \"3. Learn a surrogate model of the DFT energies, which is used to screen the virtual crystal structures according to the surrogate energies.\\n\",\n    \"4. Perform the DFT-based structure relaxation on a set of selected candidates.\\n\",\n    \"\\n\",\n    \"All these codes have been developed with Python 3.7 and [XenonPy](https://github.com/yoshida-lab/XenonPy) and tested with Python 3.7, 3.8, and 3.9. A DFT calculation backend is needed to execute the single-point DFT calculations and the DFT-based structure relaxations. In this study, [Vienna Ab initio Simulation Package (ak. VASP)](https://www.vasp.at/) was used.\\n\",\n    \"\\n\",\n    \"Please download the necessary files to run this demonstration.  All files should be organized as follows.\\n\",\n    \"\\n\",\n    \"```\\n\",\n    \"├── CSP_with_element_substitution.ipynb\\n\",\n    \"├── cgcnn_formation_energy\\n\",\n    \"│   ├── checkpoints\\n\",\n    \"│   │   ├── mae.pth.s\\n\",\n    \"│   │   ├── mse.pth.s\\n\",\n    \"│   │   ├── pearsonr.pth.s\\n\",\n    \"│   │   └── r2.pth.s\\n\",\n    \"│   ├── data_indices.pkl.z\\n\",\n    \"│   ├── describe.pkl.z\\n\",\n    \"│   ├── final_state.pth.s\\n\",\n    \"│   ├── ft_training_plot.png\\n\",\n    \"│   ├── ft_training_steps.png\\n\",\n    \"│   ├── init_state.pth.s\\n\",\n    \"│   ├── model.pth.m\\n\",\n    \"│   ├── model_class.pkl.z\\n\",\n    \"│   ├── model_params.pkl.z\\n\",\n    \"│   ├── model_structure.pkl.z\\n\",\n    \"│   ├── results.csv\\n\",\n    \"│   ├── results.pd.xz\\n\",\n    \"│   ├── training_info.pd.xz\\n\",\n    \"│   └── val_idx.pkl.z\\n\",\n    \"├── data\\n\",\n    \"│   ├── mp_structures_info.pd.xz\\n\",\n    \"│   └── searching_targets_with_predictions.pd.xz\\n\",\n    \"└── generated\\n\",\n    \"    ├── opt_candidate_result.pd.xz\\n\",\n    \"    └── single_point_results.pd.xz\\n\",\n    \"```\\n\",\n    \"\\n\",\n    \"* cgcnn_formation_energy: https://github.com/yoshida-lab/XenonPy/releases/download/v0.6.7/cgcnn_formation_energy.tar.gz\\n\",\n    \"* data: https://github.com/yoshida-lab/XenonPy/releases/download/v0.6.7/data.tar.gz\\n\",\n    \"* generated: https://github.com/yoshida-lab/XenonPy/releases/download/v0.6.7/generated.tar.gz\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### Common packages\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [],\n   \"source\": [\n    \"import numpy as np\\n\",\n    \"import pandas as pd\\n\",\n    \"import seaborn as sns\\n\",\n    \"import matplotlib\\n\",\n    \"import json\\n\",\n    \"import operator\\n\",\n    \"\\n\",\n    \"from pathlib import Path\\n\",\n    \"from functools import reduce\\n\",\n    \"from collections import defaultdict\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"from pymatgen.core import Structure, Element, Composition\\n\",\n    \"from pathlib import Path\\n\",\n    \"from matplotlib import pyplot as plt\\n\",\n    \"from matplotlib.ticker import FormatStrFormatter, PercentFormatter\\n\",\n    \"from joblib import Parallel, delayed, load\\n\",\n    \"from tqdm.notebook import tqdm\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"# user-friendly print\\n\",\n    \"from IPython.core.interactiveshell import InteractiveShell\\n\",\n    \"InteractiveShell.ast_node_interactivity = \\\"all\\\"\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"source\": [\n    \"### 1. Load data\\n\",\n    \"\\n\",\n    \"In this study, we compiled a list of 90 stable crystalline compounds as the benchmark set (see our paper for details). All structures in the Materials Project database were used as a template set to create the virtual crystal structures to be screened.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>n_elemets</th>\\n\",\n       \"      <th>n_atoms</th>\\n\",\n       \"      <th>pretty_formula</th>\\n\",\n       \"      <th>space_group</th>\\n\",\n       \"      <th>space_group_number</th>\\n\",\n       \"      <th>volume</th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"      <th>full_formula</th>\\n\",\n       \"      <th>formation_energy</th>\\n\",\n       \"      <th>dataset</th>\\n\",\n       \"      <th>pred_volume</th>\\n\",\n       \"      <th>pred_spg</th>\\n\",\n       \"      <th>pred_spg_top20</th>\\n\",\n       \"      <th>rank</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-569304</th>\\n\",\n       \"      <td>{'C': 4.0}</td>\\n\",\n       \"      <td>[C]</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>C</td>\\n\",\n       \"      <td>R-3m</td>\\n\",\n       \"      <td>166</td>\\n\",\n       \"      <td>62.601036</td>\\n\",\n       \"      <td>[[ 3.48460258  2.02633463 33.51650787] C, [1.0...</td>\\n\",\n       \"      <td>C4</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>14.695088</td>\\n\",\n       \"      <td>166</td>\\n\",\n       \"      <td>[166, 64, 194, 15, 62, 8, 160, 225, 221, 74, 1...</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-149</th>\\n\",\n       \"      <td>{'Si': 2.0}</td>\\n\",\n       \"      <td>[Si]</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>Si</td>\\n\",\n       \"      <td>Fd-3m</td>\\n\",\n       \"      <td>227</td>\\n\",\n       \"      <td>40.888293</td>\\n\",\n       \"      <td>[[1.11629943 0.7893429  1.93348733] Si, [0. 0....</td>\\n\",\n       \"      <td>Si2</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>33.270061</td>\\n\",\n       \"      <td>225</td>\\n\",\n       \"      <td>[225, 227, 189, 194, 200, 129, 216, 191, 11, 1...</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-2534</th>\\n\",\n       \"      <td>{'Ga': 1.0, 'As': 1.0}</td>\\n\",\n       \"      <td>[Ga, As]</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>GaAs</td>\\n\",\n       \"      <td>F-43m</td>\\n\",\n       \"      <td>216</td>\\n\",\n       \"      <td>47.531857</td>\\n\",\n       \"      <td>[[0. 0. 0.] Ga, [3.52125296 2.48990185 6.09898...</td>\\n\",\n       \"      <td>Ga1As1</td>\\n\",\n       \"      <td>-0.347249</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>41.831081</td>\\n\",\n       \"      <td>216</td>\\n\",\n       \"      <td>[216, 225, 160, 187, 166, 14, 5, 194, 44, 156,...</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                      composition  elements  n_elemets  n_atoms  \\\\\\n\",\n       \"mp-569304              {'C': 4.0}       [C]          1        4   \\n\",\n       \"mp-149                {'Si': 2.0}      [Si]          1        2   \\n\",\n       \"mp-2534    {'Ga': 1.0, 'As': 1.0}  [Ga, As]          2        2   \\n\",\n       \"\\n\",\n       \"          pretty_formula space_group  space_group_number     volume  \\\\\\n\",\n       \"mp-569304              C        R-3m                 166  62.601036   \\n\",\n       \"mp-149                Si       Fd-3m                 227  40.888293   \\n\",\n       \"mp-2534             GaAs       F-43m                 216  47.531857   \\n\",\n       \"\\n\",\n       \"                                                   structure full_formula  \\\\\\n\",\n       \"mp-569304  [[ 3.48460258  2.02633463 33.51650787] C, [1.0...           C4   \\n\",\n       \"mp-149     [[1.11629943 0.7893429  1.93348733] Si, [0. 0....          Si2   \\n\",\n       \"mp-2534    [[0. 0. 0.] Ga, [3.52125296 2.48990185 6.09898...       Ga1As1   \\n\",\n       \"\\n\",\n       \"           formation_energy  dataset  pred_volume  pred_spg  \\\\\\n\",\n       \"mp-569304          0.000000        1    14.695088       166   \\n\",\n       \"mp-149             0.000000        1    33.270061       225   \\n\",\n       \"mp-2534           -0.347249        1    41.831081       216   \\n\",\n       \"\\n\",\n       \"                                              pred_spg_top20  rank  \\n\",\n       \"mp-569304  [166, 64, 194, 15, 62, 8, 160, 225, 221, 74, 1...     0  \\n\",\n       \"mp-149     [225, 227, 189, 194, 200, 129, 216, 191, 11, 1...     1  \\n\",\n       \"mp-2534    [216, 225, 160, 187, 166, 14, 5, 194, 44, 156,...     0  \"\n      ]\n     },\n     \"execution_count\": 2,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>full_formula</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>composition_ratio</th>\\n\",\n       \"      <th>total_atoms</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>n_elements</th>\\n\",\n       \"      <th>space_group_num</th>\\n\",\n       \"      <th>space_group</th>\\n\",\n       \"      <th>wy_cfg</th>\\n\",\n       \"      <th>wy_reformat</th>\\n\",\n       \"      <th>wy_pattern</th>\\n\",\n       \"      <th>wy_pattern_loose</th>\\n\",\n       \"      <th>wy_unique</th>\\n\",\n       \"      <th>ss_cfg</th>\\n\",\n       \"      <th>ss_reformat</th>\\n\",\n       \"      <th>ss_pattern</th>\\n\",\n       \"      <th>ss_pattern_loose</th>\\n\",\n       \"      <th>ss_unique</th>\\n\",\n       \"      <th>volume_of_cell</th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-10018</th>\\n\",\n       \"      <td>Ac1</td>\\n\",\n       \"      <td>{'Ac': 1.0}</td>\\n\",\n       \"      <td>(1.0,)</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>(Ac,)</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>225</td>\\n\",\n       \"      <td>Fm-3m</td>\\n\",\n       \"      <td>{'Ac': {'a': 4}}</td>\\n\",\n       \"      <td>{'Ac': ('a',)}</td>\\n\",\n       \"      <td>((a,),)</td>\\n\",\n       \"      <td>(a,)</td>\\n\",\n       \"      <td>(a,)</td>\\n\",\n       \"      <td>{'Ac': {'m-3m': 4}}</td>\\n\",\n       \"      <td>{'Ac': ('m-3m',)}</td>\\n\",\n       \"      <td>((m-3m,),)</td>\\n\",\n       \"      <td>(m-3m,)</td>\\n\",\n       \"      <td>(m-3m,)</td>\\n\",\n       \"      <td>45.384600</td>\\n\",\n       \"      <td>[[0. 0. 0.] Ac]</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1006278</th>\\n\",\n       \"      <td>Ac1Eu1Au2</td>\\n\",\n       \"      <td>{'Ac': 1.0, 'Eu': 1.0, 'Au': 2.0}</td>\\n\",\n       \"      <td>(1.0, 1.0, 2.0)</td>\\n\",\n       \"      <td>4.0</td>\\n\",\n       \"      <td>(Ac, Au, Eu)</td>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>225</td>\\n\",\n       \"      <td>Fm-3m</td>\\n\",\n       \"      <td>{'Ac': {'b': 4}, 'Eu': {'a': 4}, 'Au': {'c': 8}}</td>\\n\",\n       \"      <td>{'Ac': ('b',), 'Eu': ('a',), 'Au': ('c',)}</td>\\n\",\n       \"      <td>((a,), (b,), (c,))</td>\\n\",\n       \"      <td>(a, b, c)</td>\\n\",\n       \"      <td>(a, b, c)</td>\\n\",\n       \"      <td>{'Ac': {'m-3m': 4}, 'Eu': {'m-3m': 4}, 'Au': {...</td>\\n\",\n       \"      <td>{'Ac': ('m-3m',), 'Eu': ('m-3m',), 'Au': ('-43...</td>\\n\",\n       \"      <td>((-43m,), (m-3m,), (m-3m,))</td>\\n\",\n       \"      <td>(-43m, m-3m, m-3m)</td>\\n\",\n       \"      <td>(-43m, m-3m)</td>\\n\",\n       \"      <td>117.080578</td>\\n\",\n       \"      <td>[[3.882859 3.882859 3.882859] Ac, [0. 0. 0.] E...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1008601</th>\\n\",\n       \"      <td>Zr1Ag2</td>\\n\",\n       \"      <td>{'Zr': 1.0, 'Ag': 2.0}</td>\\n\",\n       \"      <td>(1.0, 2.0)</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>(Ag, Zr)</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>139</td>\\n\",\n       \"      <td>I4/mmm</td>\\n\",\n       \"      <td>{'Zr': {'a': 2}, 'Ag': {'e': 4}}</td>\\n\",\n       \"      <td>{'Zr': ('a',), 'Ag': ('e',)}</td>\\n\",\n       \"      <td>((a,), (e,))</td>\\n\",\n       \"      <td>(a, e)</td>\\n\",\n       \"      <td>(a, e)</td>\\n\",\n       \"      <td>{'Zr': {'4/mmm': 2}, 'Ag': {'4mm': 4}}</td>\\n\",\n       \"      <td>{'Zr': ('4/mmm',), 'Ag': ('4mm',)}</td>\\n\",\n       \"      <td>((4/mmm,), (4mm,))</td>\\n\",\n       \"      <td>(4/mmm, 4mm)</td>\\n\",\n       \"      <td>(4/mmm, 4mm)</td>\\n\",\n       \"      <td>58.128751</td>\\n\",\n       \"      <td>[[0. 0. 0.] Zr, [0.         0.         6.08155...</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"           full_formula                        composition composition_ratio  \\\\\\n\",\n       \"id                                                                             \\n\",\n       \"mp-10018            Ac1                        {'Ac': 1.0}            (1.0,)   \\n\",\n       \"mp-1006278    Ac1Eu1Au2  {'Ac': 1.0, 'Eu': 1.0, 'Au': 2.0}   (1.0, 1.0, 2.0)   \\n\",\n       \"mp-1008601       Zr1Ag2             {'Zr': 1.0, 'Ag': 2.0}        (1.0, 2.0)   \\n\",\n       \"\\n\",\n       \"            total_atoms      elements  n_elements  space_group_num  \\\\\\n\",\n       \"id                                                                   \\n\",\n       \"mp-10018            1.0         (Ac,)           1              225   \\n\",\n       \"mp-1006278          4.0  (Ac, Au, Eu)           3              225   \\n\",\n       \"mp-1008601          3.0      (Ag, Zr)           2              139   \\n\",\n       \"\\n\",\n       \"           space_group                                            wy_cfg  \\\\\\n\",\n       \"id                                                                         \\n\",\n       \"mp-10018         Fm-3m                                  {'Ac': {'a': 4}}   \\n\",\n       \"mp-1006278       Fm-3m  {'Ac': {'b': 4}, 'Eu': {'a': 4}, 'Au': {'c': 8}}   \\n\",\n       \"mp-1008601      I4/mmm                  {'Zr': {'a': 2}, 'Ag': {'e': 4}}   \\n\",\n       \"\\n\",\n       \"                                           wy_reformat          wy_pattern  \\\\\\n\",\n       \"id                                                                           \\n\",\n       \"mp-10018                                {'Ac': ('a',)}             ((a,),)   \\n\",\n       \"mp-1006278  {'Ac': ('b',), 'Eu': ('a',), 'Au': ('c',)}  ((a,), (b,), (c,))   \\n\",\n       \"mp-1008601                {'Zr': ('a',), 'Ag': ('e',)}        ((a,), (e,))   \\n\",\n       \"\\n\",\n       \"           wy_pattern_loose  wy_unique  \\\\\\n\",\n       \"id                                       \\n\",\n       \"mp-10018               (a,)       (a,)   \\n\",\n       \"mp-1006278        (a, b, c)  (a, b, c)   \\n\",\n       \"mp-1008601           (a, e)     (a, e)   \\n\",\n       \"\\n\",\n       \"                                                       ss_cfg  \\\\\\n\",\n       \"id                                                              \\n\",\n       \"mp-10018                                  {'Ac': {'m-3m': 4}}   \\n\",\n       \"mp-1006278  {'Ac': {'m-3m': 4}, 'Eu': {'m-3m': 4}, 'Au': {...   \\n\",\n       \"mp-1008601             {'Zr': {'4/mmm': 2}, 'Ag': {'4mm': 4}}   \\n\",\n       \"\\n\",\n       \"                                                  ss_reformat  \\\\\\n\",\n       \"id                                                              \\n\",\n       \"mp-10018                                    {'Ac': ('m-3m',)}   \\n\",\n       \"mp-1006278  {'Ac': ('m-3m',), 'Eu': ('m-3m',), 'Au': ('-43...   \\n\",\n       \"mp-1008601                 {'Zr': ('4/mmm',), 'Ag': ('4mm',)}   \\n\",\n       \"\\n\",\n       \"                             ss_pattern    ss_pattern_loose     ss_unique  \\\\\\n\",\n       \"id                                                                          \\n\",\n       \"mp-10018                     ((m-3m,),)             (m-3m,)       (m-3m,)   \\n\",\n       \"mp-1006278  ((-43m,), (m-3m,), (m-3m,))  (-43m, m-3m, m-3m)  (-43m, m-3m)   \\n\",\n       \"mp-1008601           ((4/mmm,), (4mm,))        (4/mmm, 4mm)  (4/mmm, 4mm)   \\n\",\n       \"\\n\",\n       \"            volume_of_cell                                          structure  \\n\",\n       \"id                                                                             \\n\",\n       \"mp-10018         45.384600                                    [[0. 0. 0.] Ac]  \\n\",\n       \"mp-1006278      117.080578  [[3.882859 3.882859 3.882859] Ac, [0. 0. 0.] E...  \\n\",\n       \"mp-1008601       58.128751  [[0. 0. 0.] Zr, [0.         0.         6.08155...  \"\n      ]\n     },\n     \"execution_count\": 2,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(126300, 20)\"\n      ]\n     },\n     \"execution_count\": 2,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# the benchmark set used in our paper\\n\",\n    \"searching_targets = pd.read_pickle('data/searching_targets_with_predictions.pd.xz')\\n\",\n    \"\\n\",\n    \"# template structures\\n\",\n    \"mp_structs_info = pd.read_pickle('data/mp_structures_info.pd.xz')\\n\",\n    \"mp_structs_info = mp_structs_info.assign(structure=mp_structs_info.structure.apply(lambda s: Structure.from_dict(s)))\\n\",\n    \"\\n\",\n    \"searching_targets.head(3)\\n\",\n    \"mp_structs_info.head(3)\\n\",\n    \"mp_structs_info.shape\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"For simplicity, we choose $\\\\mathrm{Zr}\\\\mathrm{O}_2$ as an example.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>n_elemets</th>\\n\",\n       \"      <th>n_atoms</th>\\n\",\n       \"      <th>pretty_formula</th>\\n\",\n       \"      <th>space_group</th>\\n\",\n       \"      <th>space_group_number</th>\\n\",\n       \"      <th>volume</th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"      <th>full_formula</th>\\n\",\n       \"      <th>formation_energy</th>\\n\",\n       \"      <th>dataset</th>\\n\",\n       \"      <th>pred_volume</th>\\n\",\n       \"      <th>pred_spg</th>\\n\",\n       \"      <th>pred_spg_top20</th>\\n\",\n       \"      <th>rank</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-2858</th>\\n\",\n       \"      <td>{'Zr': 4.0, 'O': 8.0}</td>\\n\",\n       \"      <td>[Zr, O]</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>12</td>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>P2_1/c</td>\\n\",\n       \"      <td>14</td>\\n\",\n       \"      <td>147.110401</td>\\n\",\n       \"      <td>[[0.23276056 1.42220345 4.53138565] Zr, [2.401...</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>-3.83322</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>140.843399</td>\\n\",\n       \"      <td>14</td>\\n\",\n       \"      <td>[14, 167, 87, 59, 189, 136, 141, 12, 92, 198, ...</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                   composition elements  n_elemets  n_atoms pretty_formula  \\\\\\n\",\n       \"mp-2858  {'Zr': 4.0, 'O': 8.0}  [Zr, O]          2       12           ZrO2   \\n\",\n       \"\\n\",\n       \"        space_group  space_group_number      volume  \\\\\\n\",\n       \"mp-2858      P2_1/c                  14  147.110401   \\n\",\n       \"\\n\",\n       \"                                                 structure full_formula  \\\\\\n\",\n       \"mp-2858  [[0.23276056 1.42220345 4.53138565] Zr, [2.401...        Zr4O8   \\n\",\n       \"\\n\",\n       \"         formation_energy  dataset  pred_volume  pred_spg  \\\\\\n\",\n       \"mp-2858          -3.83322        1   140.843399        14   \\n\",\n       \"\\n\",\n       \"                                            pred_spg_top20  rank  \\n\",\n       \"mp-2858  [14, 167, 87, 59, 189, 136, 141, 12, 92, 198, ...     0  \"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"demo_target = 'ZrO2'\\n\",\n    \"\\n\",\n    \"demo_target = searching_targets[searching_targets.pretty_formula==demo_target]\\n\",\n    \"demo_target\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Drop the `demo_target` from the template pool.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(126299, 20)\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>full_formula</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>composition_ratio</th>\\n\",\n       \"      <th>total_atoms</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>n_elements</th>\\n\",\n       \"      <th>space_group_num</th>\\n\",\n       \"      <th>space_group</th>\\n\",\n       \"      <th>wy_cfg</th>\\n\",\n       \"      <th>wy_reformat</th>\\n\",\n       \"      <th>wy_pattern</th>\\n\",\n       \"      <th>wy_pattern_loose</th>\\n\",\n       \"      <th>wy_unique</th>\\n\",\n       \"      <th>ss_cfg</th>\\n\",\n       \"      <th>ss_reformat</th>\\n\",\n       \"      <th>ss_pattern</th>\\n\",\n       \"      <th>ss_pattern_loose</th>\\n\",\n       \"      <th>ss_unique</th>\\n\",\n       \"      <th>volume_of_cell</th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-10018</th>\\n\",\n       \"      <td>Ac1</td>\\n\",\n       \"      <td>{'Ac': 1.0}</td>\\n\",\n       \"      <td>(1.0,)</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>(Ac,)</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>225</td>\\n\",\n       \"      <td>Fm-3m</td>\\n\",\n       \"      <td>{'Ac': {'a': 4}}</td>\\n\",\n       \"      <td>{'Ac': ('a',)}</td>\\n\",\n       \"      <td>((a,),)</td>\\n\",\n       \"      <td>(a,)</td>\\n\",\n       \"      <td>(a,)</td>\\n\",\n       \"      <td>{'Ac': {'m-3m': 4}}</td>\\n\",\n       \"      <td>{'Ac': ('m-3m',)}</td>\\n\",\n       \"      <td>((m-3m,),)</td>\\n\",\n       \"      <td>(m-3m,)</td>\\n\",\n       \"      <td>(m-3m,)</td>\\n\",\n       \"      <td>45.384600</td>\\n\",\n       \"      <td>[[0. 0. 0.] Ac]</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1006278</th>\\n\",\n       \"      <td>Ac1Eu1Au2</td>\\n\",\n       \"      <td>{'Ac': 1.0, 'Eu': 1.0, 'Au': 2.0}</td>\\n\",\n       \"      <td>(1.0, 1.0, 2.0)</td>\\n\",\n       \"      <td>4.0</td>\\n\",\n       \"      <td>(Ac, Au, Eu)</td>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>225</td>\\n\",\n       \"      <td>Fm-3m</td>\\n\",\n       \"      <td>{'Ac': {'b': 4}, 'Eu': {'a': 4}, 'Au': {'c': 8}}</td>\\n\",\n       \"      <td>{'Ac': ('b',), 'Eu': ('a',), 'Au': ('c',)}</td>\\n\",\n       \"      <td>((a,), (b,), (c,))</td>\\n\",\n       \"      <td>(a, b, c)</td>\\n\",\n       \"      <td>(a, b, c)</td>\\n\",\n       \"      <td>{'Ac': {'m-3m': 4}, 'Eu': {'m-3m': 4}, 'Au': {...</td>\\n\",\n       \"      <td>{'Ac': ('m-3m',), 'Eu': ('m-3m',), 'Au': ('-43...</td>\\n\",\n       \"      <td>((-43m,), (m-3m,), (m-3m,))</td>\\n\",\n       \"      <td>(-43m, m-3m, m-3m)</td>\\n\",\n       \"      <td>(-43m, m-3m)</td>\\n\",\n       \"      <td>117.080578</td>\\n\",\n       \"      <td>[[3.882859 3.882859 3.882859] Ac, [0. 0. 0.] E...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1008601</th>\\n\",\n       \"      <td>Zr1Ag2</td>\\n\",\n       \"      <td>{'Zr': 1.0, 'Ag': 2.0}</td>\\n\",\n       \"      <td>(1.0, 2.0)</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>(Ag, Zr)</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>139</td>\\n\",\n       \"      <td>I4/mmm</td>\\n\",\n       \"      <td>{'Zr': {'a': 2}, 'Ag': {'e': 4}}</td>\\n\",\n       \"      <td>{'Zr': ('a',), 'Ag': ('e',)}</td>\\n\",\n       \"      <td>((a,), (e,))</td>\\n\",\n       \"      <td>(a, e)</td>\\n\",\n       \"      <td>(a, e)</td>\\n\",\n       \"      <td>{'Zr': {'4/mmm': 2}, 'Ag': {'4mm': 4}}</td>\\n\",\n       \"      <td>{'Zr': ('4/mmm',), 'Ag': ('4mm',)}</td>\\n\",\n       \"      <td>((4/mmm,), (4mm,))</td>\\n\",\n       \"      <td>(4/mmm, 4mm)</td>\\n\",\n       \"      <td>(4/mmm, 4mm)</td>\\n\",\n       \"      <td>58.128751</td>\\n\",\n       \"      <td>[[0. 0. 0.] Zr, [0.         0.         6.08155...</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"           full_formula                        composition composition_ratio  \\\\\\n\",\n       \"id                                                                             \\n\",\n       \"mp-10018            Ac1                        {'Ac': 1.0}            (1.0,)   \\n\",\n       \"mp-1006278    Ac1Eu1Au2  {'Ac': 1.0, 'Eu': 1.0, 'Au': 2.0}   (1.0, 1.0, 2.0)   \\n\",\n       \"mp-1008601       Zr1Ag2             {'Zr': 1.0, 'Ag': 2.0}        (1.0, 2.0)   \\n\",\n       \"\\n\",\n       \"            total_atoms      elements  n_elements  space_group_num  \\\\\\n\",\n       \"id                                                                   \\n\",\n       \"mp-10018            1.0         (Ac,)           1              225   \\n\",\n       \"mp-1006278          4.0  (Ac, Au, Eu)           3              225   \\n\",\n       \"mp-1008601          3.0      (Ag, Zr)           2              139   \\n\",\n       \"\\n\",\n       \"           space_group                                            wy_cfg  \\\\\\n\",\n       \"id                                                                         \\n\",\n       \"mp-10018         Fm-3m                                  {'Ac': {'a': 4}}   \\n\",\n       \"mp-1006278       Fm-3m  {'Ac': {'b': 4}, 'Eu': {'a': 4}, 'Au': {'c': 8}}   \\n\",\n       \"mp-1008601      I4/mmm                  {'Zr': {'a': 2}, 'Ag': {'e': 4}}   \\n\",\n       \"\\n\",\n       \"                                           wy_reformat          wy_pattern  \\\\\\n\",\n       \"id                                                                           \\n\",\n       \"mp-10018                                {'Ac': ('a',)}             ((a,),)   \\n\",\n       \"mp-1006278  {'Ac': ('b',), 'Eu': ('a',), 'Au': ('c',)}  ((a,), (b,), (c,))   \\n\",\n       \"mp-1008601                {'Zr': ('a',), 'Ag': ('e',)}        ((a,), (e,))   \\n\",\n       \"\\n\",\n       \"           wy_pattern_loose  wy_unique  \\\\\\n\",\n       \"id                                       \\n\",\n       \"mp-10018               (a,)       (a,)   \\n\",\n       \"mp-1006278        (a, b, c)  (a, b, c)   \\n\",\n       \"mp-1008601           (a, e)     (a, e)   \\n\",\n       \"\\n\",\n       \"                                                       ss_cfg  \\\\\\n\",\n       \"id                                                              \\n\",\n       \"mp-10018                                  {'Ac': {'m-3m': 4}}   \\n\",\n       \"mp-1006278  {'Ac': {'m-3m': 4}, 'Eu': {'m-3m': 4}, 'Au': {...   \\n\",\n       \"mp-1008601             {'Zr': {'4/mmm': 2}, 'Ag': {'4mm': 4}}   \\n\",\n       \"\\n\",\n       \"                                                  ss_reformat  \\\\\\n\",\n       \"id                                                              \\n\",\n       \"mp-10018                                    {'Ac': ('m-3m',)}   \\n\",\n       \"mp-1006278  {'Ac': ('m-3m',), 'Eu': ('m-3m',), 'Au': ('-43...   \\n\",\n       \"mp-1008601                 {'Zr': ('4/mmm',), 'Ag': ('4mm',)}   \\n\",\n       \"\\n\",\n       \"                             ss_pattern    ss_pattern_loose     ss_unique  \\\\\\n\",\n       \"id                                                                          \\n\",\n       \"mp-10018                     ((m-3m,),)             (m-3m,)       (m-3m,)   \\n\",\n       \"mp-1006278  ((-43m,), (m-3m,), (m-3m,))  (-43m, m-3m, m-3m)  (-43m, m-3m)   \\n\",\n       \"mp-1008601           ((4/mmm,), (4mm,))        (4/mmm, 4mm)  (4/mmm, 4mm)   \\n\",\n       \"\\n\",\n       \"            volume_of_cell                                          structure  \\n\",\n       \"id                                                                             \\n\",\n       \"mp-10018         45.384600                                    [[0. 0. 0.] Ac]  \\n\",\n       \"mp-1006278      117.080578  [[3.882859 3.882859 3.882859] Ac, [0. 0. 0.] E...  \\n\",\n       \"mp-1008601       58.128751  [[0. 0. 0.] Zr, [0.         0.         6.08155...  \"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"templates = mp_structs_info.loc[~mp_structs_info.index.isin(demo_target.index)]\\n\",\n    \"\\n\",\n    \"templates.shape\\n\",\n    \"templates.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 2. Filter templates\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [],\n   \"source\": [\n    \"# help functions to calculate dissimilarity and refine structures\\n\",\n    \"\\n\",\n    \"from matminer.featurizers.site import CrystalNNFingerprint\\n\",\n    \"from matminer.featurizers.structure import SiteStatsFingerprint\\n\",\n    \"from joblib import Parallel, delayed\\n\",\n    \"\\n\",\n    \"def calculate_similarity(anchor_struc, *struc, n_jobs=10):\\n\",\n    \"    # Calculate structure fingerprints.\\n\",\n    \"    ssf = SiteStatsFingerprint(\\n\",\n    \"        CrystalNNFingerprint.from_preset('ops', distance_cutoffs=None, x_diff_weight=0),\\n\",\n    \"        stats=('mean', 'std_dev', 'minimum', 'maximum'))\\n\",\n    \"    v_anchor = np.array(ssf.featurize(anchor_struc))\\n\",\n    \"    tmp = Parallel(n_jobs=n_jobs)(delayed(ssf.featurize)(s) for s in struc)\\n\",\n    \"    return [np.linalg.norm(np.array(s) - v_anchor) for s in tmp]\\n\",\n    \"\\n\",\n    \"def modify_struct(s: Structure, vol=None) -> Structure:\\n\",\n    \"    s = s.get_primitive_structure()\\n\",\n    \"    if vol is not None:\\n\",\n    \"        s.scale_lattice(vol)\\n\",\n    \"    return s\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"For the given query composition $\\\\mathrm{Zr}\\\\mathrm{O}_2$, we collected a set of template crystal structures with the same composition ratio from the Materials Project database.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [],\n   \"source\": [\n    \"demo_target = demo_target.iloc[0]\\n\",\n    \"\\n\",\n    \"# general info\\n\",\n    \"full_formula = demo_target.full_formula\\n\",\n    \"volume = demo_target.pred_volume\\n\",\n    \"spg_num = demo_target.space_group_number\\n\",\n    \"\\n\",\n    \"# composition info\\n\",\n    \"composition = demo_target.composition\\n\",\n    \"composition_ratio = tuple(sorted([v for v in composition.values()]))\\n\",\n    \"\\n\",\n    \"# groundtruth\\n\",\n    \"true_struct = demo_target.structure\\n\",\n    \"if spg_num not in [146, 148, 155, 160, 161, 166, 167]:\\n\",\n    \"    true_struct = SpacegroupAnalyzer(true_struct).get_conventional_standard_structure()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Filter templates\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(924, 20)\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>full_formula</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>composition_ratio</th>\\n\",\n       \"      <th>total_atoms</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>n_elements</th>\\n\",\n       \"      <th>space_group_num</th>\\n\",\n       \"      <th>space_group</th>\\n\",\n       \"      <th>wy_cfg</th>\\n\",\n       \"      <th>wy_reformat</th>\\n\",\n       \"      <th>wy_pattern</th>\\n\",\n       \"      <th>wy_pattern_loose</th>\\n\",\n       \"      <th>wy_unique</th>\\n\",\n       \"      <th>ss_cfg</th>\\n\",\n       \"      <th>ss_reformat</th>\\n\",\n       \"      <th>ss_pattern</th>\\n\",\n       \"      <th>ss_pattern_loose</th>\\n\",\n       \"      <th>ss_unique</th>\\n\",\n       \"      <th>volume_of_cell</th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1093999</th>\\n\",\n       \"      <td>Zn8Ag4</td>\\n\",\n       \"      <td>{'Zn': 8.0, 'Ag': 4.0}</td>\\n\",\n       \"      <td>(4.0, 8.0)</td>\\n\",\n       \"      <td>12.0</td>\\n\",\n       \"      <td>(Ag, Zn)</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>194</td>\\n\",\n       \"      <td>P6_3/mmc</td>\\n\",\n       \"      <td>{'Zn': {'a': 2, 'h': 6}, 'Ag': {'f': 4}}</td>\\n\",\n       \"      <td>{'Zn': ('a', 'h'), 'Ag': ('f',)}</td>\\n\",\n       \"      <td>((a, h), (f,))</td>\\n\",\n       \"      <td>(a, f, h)</td>\\n\",\n       \"      <td>(a, f, h)</td>\\n\",\n       \"      <td>{'Zn': {'-3m.': 2, 'mm2': 6}, 'Ag': {'3m.': 4}}</td>\\n\",\n       \"      <td>{'Zn': ('mm2', '-3m.'), 'Ag': ('3m.',)}</td>\\n\",\n       \"      <td>((3m.,), (mm2, -3m.))</td>\\n\",\n       \"      <td>(-3m., 3m., mm2)</td>\\n\",\n       \"      <td>(-3m., 3m., mm2)</td>\\n\",\n       \"      <td>140.843399</td>\\n\",\n       \"      <td>[[0. 0. 0.] Zn, [0.         0.         3.78643...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1094121</th>\\n\",\n       \"      <td>Mg4Ag8</td>\\n\",\n       \"      <td>{'Mg': 4.0, 'Ag': 8.0}</td>\\n\",\n       \"      <td>(4.0, 8.0)</td>\\n\",\n       \"      <td>12.0</td>\\n\",\n       \"      <td>(Ag, Mg)</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>194</td>\\n\",\n       \"      <td>P6_3/mmc</td>\\n\",\n       \"      <td>{'Mg': {'f': 4}, 'Ag': {'a': 2, 'h': 6}}</td>\\n\",\n       \"      <td>{'Mg': ('f',), 'Ag': ('a', 'h')}</td>\\n\",\n       \"      <td>((a, h), (f,))</td>\\n\",\n       \"      <td>(a, f, h)</td>\\n\",\n       \"      <td>(a, f, h)</td>\\n\",\n       \"      <td>{'Mg': {'3m.': 4}, 'Ag': {'-3m.': 2, 'mm2': 6}}</td>\\n\",\n       \"      <td>{'Mg': ('3m.',), 'Ag': ('-3m.', 'mm2')}</td>\\n\",\n       \"      <td>((-3m., mm2), (3m.,))</td>\\n\",\n       \"      <td>(-3m., 3m., mm2)</td>\\n\",\n       \"      <td>(-3m., 3m., mm2)</td>\\n\",\n       \"      <td>140.843399</td>\\n\",\n       \"      <td>[[2.34438871 1.35353592 0.45181891] Mg, [ 2.34...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1095654</th>\\n\",\n       \"      <td>Si4Ag8</td>\\n\",\n       \"      <td>{'Si': 4.0, 'Ag': 8.0}</td>\\n\",\n       \"      <td>(4.0, 8.0)</td>\\n\",\n       \"      <td>12.0</td>\\n\",\n       \"      <td>(Ag, Si)</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>63</td>\\n\",\n       \"      <td>Cmcm</td>\\n\",\n       \"      <td>{'Si': {'f': 8}, 'Ag': {'a': 4, 'c': 4, 'g': 8}}</td>\\n\",\n       \"      <td>{'Si': ('f',), 'Ag': ('a', 'c', 'g')}</td>\\n\",\n       \"      <td>((a, c, g), (f,))</td>\\n\",\n       \"      <td>(a, c, f, g)</td>\\n\",\n       \"      <td>(a, c, f, g)</td>\\n\",\n       \"      <td>{'Si': {'m..': 8}, 'Ag': {'2/m..': 4, 'm2m': 4...</td>\\n\",\n       \"      <td>{'Si': ('m..',), 'Ag': ('..m', 'm2m', '2/m..')}</td>\\n\",\n       \"      <td>((..m, 2/m.., m2m), (m..,))</td>\\n\",\n       \"      <td>(..m, 2/m.., m.., m2m)</td>\\n\",\n       \"      <td>(..m, 2/m.., m.., m2m)</td>\\n\",\n       \"      <td>140.843399</td>\\n\",\n       \"      <td>[[ 2.35634937 -1.37790624  6.65122564] Si, [2....</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"           full_formula             composition composition_ratio  \\\\\\n\",\n       \"id                                                                  \\n\",\n       \"mp-1093999       Zn8Ag4  {'Zn': 8.0, 'Ag': 4.0}        (4.0, 8.0)   \\n\",\n       \"mp-1094121       Mg4Ag8  {'Mg': 4.0, 'Ag': 8.0}        (4.0, 8.0)   \\n\",\n       \"mp-1095654       Si4Ag8  {'Si': 4.0, 'Ag': 8.0}        (4.0, 8.0)   \\n\",\n       \"\\n\",\n       \"            total_atoms  elements  n_elements  space_group_num space_group  \\\\\\n\",\n       \"id                                                                           \\n\",\n       \"mp-1093999         12.0  (Ag, Zn)           2              194    P6_3/mmc   \\n\",\n       \"mp-1094121         12.0  (Ag, Mg)           2              194    P6_3/mmc   \\n\",\n       \"mp-1095654         12.0  (Ag, Si)           2               63        Cmcm   \\n\",\n       \"\\n\",\n       \"                                                      wy_cfg  \\\\\\n\",\n       \"id                                                             \\n\",\n       \"mp-1093999          {'Zn': {'a': 2, 'h': 6}, 'Ag': {'f': 4}}   \\n\",\n       \"mp-1094121          {'Mg': {'f': 4}, 'Ag': {'a': 2, 'h': 6}}   \\n\",\n       \"mp-1095654  {'Si': {'f': 8}, 'Ag': {'a': 4, 'c': 4, 'g': 8}}   \\n\",\n       \"\\n\",\n       \"                                      wy_reformat         wy_pattern  \\\\\\n\",\n       \"id                                                                     \\n\",\n       \"mp-1093999       {'Zn': ('a', 'h'), 'Ag': ('f',)}     ((a, h), (f,))   \\n\",\n       \"mp-1094121       {'Mg': ('f',), 'Ag': ('a', 'h')}     ((a, h), (f,))   \\n\",\n       \"mp-1095654  {'Si': ('f',), 'Ag': ('a', 'c', 'g')}  ((a, c, g), (f,))   \\n\",\n       \"\\n\",\n       \"           wy_pattern_loose     wy_unique  \\\\\\n\",\n       \"id                                          \\n\",\n       \"mp-1093999        (a, f, h)     (a, f, h)   \\n\",\n       \"mp-1094121        (a, f, h)     (a, f, h)   \\n\",\n       \"mp-1095654     (a, c, f, g)  (a, c, f, g)   \\n\",\n       \"\\n\",\n       \"                                                       ss_cfg  \\\\\\n\",\n       \"id                                                              \\n\",\n       \"mp-1093999    {'Zn': {'-3m.': 2, 'mm2': 6}, 'Ag': {'3m.': 4}}   \\n\",\n       \"mp-1094121    {'Mg': {'3m.': 4}, 'Ag': {'-3m.': 2, 'mm2': 6}}   \\n\",\n       \"mp-1095654  {'Si': {'m..': 8}, 'Ag': {'2/m..': 4, 'm2m': 4...   \\n\",\n       \"\\n\",\n       \"                                                ss_reformat  \\\\\\n\",\n       \"id                                                            \\n\",\n       \"mp-1093999          {'Zn': ('mm2', '-3m.'), 'Ag': ('3m.',)}   \\n\",\n       \"mp-1094121          {'Mg': ('3m.',), 'Ag': ('-3m.', 'mm2')}   \\n\",\n       \"mp-1095654  {'Si': ('m..',), 'Ag': ('..m', 'm2m', '2/m..')}   \\n\",\n       \"\\n\",\n       \"                             ss_pattern        ss_pattern_loose  \\\\\\n\",\n       \"id                                                                \\n\",\n       \"mp-1093999        ((3m.,), (mm2, -3m.))        (-3m., 3m., mm2)   \\n\",\n       \"mp-1094121        ((-3m., mm2), (3m.,))        (-3m., 3m., mm2)   \\n\",\n       \"mp-1095654  ((..m, 2/m.., m2m), (m..,))  (..m, 2/m.., m.., m2m)   \\n\",\n       \"\\n\",\n       \"                         ss_unique  volume_of_cell  \\\\\\n\",\n       \"id                                                   \\n\",\n       \"mp-1093999        (-3m., 3m., mm2)      140.843399   \\n\",\n       \"mp-1094121        (-3m., 3m., mm2)      140.843399   \\n\",\n       \"mp-1095654  (..m, 2/m.., m.., m2m)      140.843399   \\n\",\n       \"\\n\",\n       \"                                                    structure  \\n\",\n       \"id                                                             \\n\",\n       \"mp-1093999  [[0. 0. 0.] Zn, [0.         0.         3.78643...  \\n\",\n       \"mp-1094121  [[2.34438871 1.35353592 0.45181891] Mg, [ 2.34...  \\n\",\n       \"mp-1095654  [[ 2.35634937 -1.37790624  6.65122564] Si, [2....  \"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"filtered_templates = mp_structs_info[(mp_structs_info.composition_ratio == composition_ratio) & (mp_structs_info.composition != composition)]\\n\",\n    \"filtered_templates = filtered_templates.assign(\\n\",\n    \"    structure=filtered_templates.structure.apply(lambda s: modify_struct(s, vol=volume)),\\n\",\n    \"    volume_of_cell=[volume] * filtered_templates.shape[0],\\n\",\n    \")\\n\",\n    \"\\n\",\n    \"filtered_templates.shape\\n\",\n    \"filtered_templates.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Perform postprocess to add dissimilarity and other information\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<Axes: ylabel='Frequency'>\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"iVBORw0KGgoAAAANSUhEUgAAAjsAAAGdCAYAAAD0e7I1AAAAOXRFWHRTb2Z0d2FyZQBNYXRwbG90bGliIHZlcnNpb24zLjcuMCwgaHR0cHM6Ly9tYXRwbG90bGliLm9yZy88F64QAAAACXBIWXMAAA9hAAAPYQGoP6dpAAApQElEQVR4nO3de1BUd57//1cPl44y0BERGkqCTIJmDSaVYMbLmHjHkKiJphaz7iSaMFM6KhNGKVdNbY3uZsXoBs2WG+PUWngbB2cSyWRL44qj4DiutcpovGTXOIkXjBBWF7uBkEbxfP/Iz/6lBRWaxm4+Ph9Vp8rzOZ8+/T6f+qR45XNOd9ssy7IEAABgqO8FuwAAAIDORNgBAABGI+wAAACjEXYAAIDRCDsAAMBohB0AAGA0wg4AADAaYQcAABgtPNgFhILr16/r4sWLio6Ols1mC3Y5AACgDSzLUl1dnZKSkvS97916/YawI+nixYtKTk4OdhkAAMAPlZWV6t279y2PE3YkRUdHS/p2sGJiYoJcDQAAaAu3263k5GTv3/FbIexI3ltXMTExhB0AALqYOz2CwgPKAADAaIQdAABgNMIOAAAwGmEHAAAYjbADAACMRtgBAABGI+wAAACjBTXsrFmzRo8++qj3+22GDBmijz/+2Ht8+vTpstlsPtvgwYN9zuHxeJSbm6u4uDhFRUVp4sSJunDhwt2+FAAAEKKCGnZ69+6tZcuW6fDhwzp8+LBGjRql559/XidPnvT2eeaZZ1RVVeXdduzY4XOOvLw8lZSUqLi4WPv371d9fb3Gjx+v5ubmu305AAAgBNksy7KCXcR3xcbGasWKFcrJydH06dN15coVffjhh632dblc6tWrlzZt2qQpU6ZI+v9/52rHjh0aN25cm97T7XbL4XDI5XLxDcoAAHQRbf37HTLP7DQ3N6u4uFgNDQ0aMmSIt72srEzx8fHq27evfvrTn6qmpsZ7rKKiQlevXlVmZqa3LSkpSenp6Tpw4MAt38vj8cjtdvtsAADATEEPO8ePH9f3v/992e12zZw5UyUlJerfv78kKSsrS7/+9a+1Z88evf322zp06JBGjRolj8cjSaqurlZkZKR69Ojhc86EhARVV1ff8j0LCgrkcDi8G794DgCAuYL+Q6D9+vXT0aNHdeXKFX3wwQeaNm2aysvL1b9/f++tKUlKT0/XwIEDlZKSou3bt2vy5Mm3PKdlWbf9UbCFCxdq7ty53v0bv5oKAADME/SwExkZqYceekiSNHDgQB06dEjvvPOO1q5d26JvYmKiUlJSdPr0aUmS0+lUU1OTamtrfVZ3ampqNHTo0Fu+p91ul91uD/CVAACAUBT0sHMzy7K8t6ludvnyZVVWVioxMVGSlJGRoYiICJWWlio7O1uSVFVVpRMnTmj58uV3rWYAgNRnwfZgl9BuZ5c9F+wScBcENewsWrRIWVlZSk5OVl1dnYqLi1VWVqadO3eqvr5eixcv1osvvqjExESdPXtWixYtUlxcnCZNmiRJcjgcysnJ0bx589SzZ0/FxsYqPz9fAwYM0JgxY4J5aQAAIEQENex89dVXevnll1VVVSWHw6FHH31UO3fu1NixY9XY2Kjjx49r48aNunLlihITEzVy5Eht3bpV0dHR3nOsXLlS4eHhys7OVmNjo0aPHq3169crLCwsiFcGAABCRch9z04w8D07ANBx3MbC3dblvmcHAACgMxB2AACA0Qg7AADAaIQdAABgNMIOAAAwGmEHAAAYjbADAACMRtgBAABGI+wAAACjEXYAAIDRCDsAAMBohB0AAGA0wg4AADAaYQcAABiNsAMAAIxG2AEAAEYj7AAAAKMRdgAAgNEIOwAAwGiEHQAAYDTCDgAAMBphBwAAGI2wAwAAjEbYAQAARiPsAAAAoxF2AACA0Qg7AADAaIQdAABgNMIOAAAwGmEHAAAYjbADAACMRtgBAABGI+wAAACjEXYAAIDRCDsAAMBohB0AAGA0wg4AADAaYQcAABiNsAMAAIxG2AEAAEYLathZs2aNHn30UcXExCgmJkZDhgzRxx9/7D1uWZYWL16spKQkdevWTSNGjNDJkyd9zuHxeJSbm6u4uDhFRUVp4sSJunDhwt2+FAAAEKKCGnZ69+6tZcuW6fDhwzp8+LBGjRql559/3htoli9frsLCQq1evVqHDh2S0+nU2LFjVVdX5z1HXl6eSkpKVFxcrP3796u+vl7jx49Xc3NzsC4LAACEEJtlWVawi/iu2NhYrVixQq+99pqSkpKUl5env/u7v5P07SpOQkKC3nrrLc2YMUMul0u9evXSpk2bNGXKFEnSxYsXlZycrB07dmjcuHFtek+32y2HwyGXy6WYmJhOuzYAMFmfBduDXUK7nV32XLBLQAe09e93yDyz09zcrOLiYjU0NGjIkCE6c+aMqqurlZmZ6e1jt9s1fPhwHThwQJJUUVGhq1ev+vRJSkpSenq6t09rPB6P3G63zwYAAMwU9LBz/Phxff/735fdbtfMmTNVUlKi/v37q7q6WpKUkJDg0z8hIcF7rLq6WpGRkerRo8ct+7SmoKBADofDuyUnJwf4qgAAQKgIetjp16+fjh49qoMHD+pnP/uZpk2bpk8//dR73Gaz+fS3LKtF283u1GfhwoVyuVzerbKysmMXAQAAQlbQw05kZKQeeughDRw4UAUFBXrsscf0zjvvyOl0SlKLFZqamhrvao/T6VRTU5Nqa2tv2ac1drvd+wmwGxsAADBT0MPOzSzLksfjUWpqqpxOp0pLS73HmpqaVF5erqFDh0qSMjIyFBER4dOnqqpKJ06c8PYBAAD3tvBgvvmiRYuUlZWl5ORk1dXVqbi4WGVlZdq5c6dsNpvy8vK0dOlSpaWlKS0tTUuXLlX37t01depUSZLD4VBOTo7mzZunnj17KjY2Vvn5+RowYIDGjBkTzEsDAAAhIqhh56uvvtLLL7+sqqoqORwOPfroo9q5c6fGjh0rSZo/f74aGxs1a9Ys1dbWatCgQdq1a5eio6O951i5cqXCw8OVnZ2txsZGjR49WuvXr1dYWFiwLgsAAISQkPuenWDge3YAoOP4nh3cbV3ue3YAAAA6A2EHAAAYjbADAACMRtgBAABGI+wAAACjEXYAAIDRCDsAAMBohB0AAGA0wg4AADAaYQcAABiNsAMAAIxG2AEAAEYj7AAAAKMRdgAAgNEIOwAAwGiEHQAAYDTCDgAAMBphBwAAGI2wAwAAjEbYAQAARiPsAAAAoxF2AACA0Qg7AADAaIQdAABgNMIOAAAwGmEHAAAYjbADAACMRtgBAABGI+wAAACjEXYAAIDRCDsAAMBohB0AAGA0wg4AADAaYQcAABiNsAMAAIxG2AEAAEYj7AAAAKMRdgAAgNEIOwAAwGhBDTsFBQV68sknFR0drfj4eL3wwgs6deqUT5/p06fLZrP5bIMHD/bp4/F4lJubq7i4OEVFRWnixIm6cOHC3bwUAAAQooIadsrLyzV79mwdPHhQpaWlunbtmjIzM9XQ0ODT75lnnlFVVZV327Fjh8/xvLw8lZSUqLi4WPv371d9fb3Gjx+v5ubmu3k5AAAgBIUH88137tzps19UVKT4+HhVVFTo6aef9rbb7XY5nc5Wz+FyubRu3Tpt2rRJY8aMkSRt3rxZycnJ2r17t8aNG9d5FwAAAEJeSD2z43K5JEmxsbE+7WVlZYqPj1ffvn3105/+VDU1Nd5jFRUVunr1qjIzM71tSUlJSk9P14EDB+5O4QAAIGQFdWXnuyzL0ty5czVs2DClp6d727OysvTXf/3XSklJ0ZkzZ/T3f//3GjVqlCoqKmS321VdXa3IyEj16NHD53wJCQmqrq5u9b08Ho88Ho933+12d85FAQCAoAuZsDNnzhwdO3ZM+/fv92mfMmWK99/p6ekaOHCgUlJStH37dk2ePPmW57MsSzabrdVjBQUFWrJkSWAKBwAAIS0kbmPl5ubqo48+0t69e9W7d+/b9k1MTFRKSopOnz4tSXI6nWpqalJtba1Pv5qaGiUkJLR6joULF8rlcnm3ysrKwFwIAAAIOUENO5Zlac6cOdq2bZv27Nmj1NTUO77m8uXLqqysVGJioiQpIyNDERERKi0t9fapqqrSiRMnNHTo0FbPYbfbFRMT47MBAAAzBfU21uzZs7Vlyxb9/ve/V3R0tPcZG4fDoW7duqm+vl6LFy/Wiy++qMTERJ09e1aLFi1SXFycJk2a5O2bk5OjefPmqWfPnoqNjVV+fr4GDBjg/XQWAAC4dwU17KxZs0aSNGLECJ/2oqIiTZ8+XWFhYTp+/Lg2btyoK1euKDExUSNHjtTWrVsVHR3t7b9y5UqFh4crOztbjY2NGj16tNavX6+wsLC7eTkAACAE2SzLsoJdRLC53W45HA65XC5uaQGAn/os2B7sEtrt7LLngl0COqCtf79D4gFlAACAzkLYAQAARiPsAAAAoxF2AACA0Qg7AADAaIQdAABgNMIOAAAwGmEHAAAYjbADAACMRtgBAABGI+wAAACjEXYAAIDRCDsAAMBohB0AAGA0wg4AADAaYQcAABiNsAMAAIxG2AEAAEYj7AAAAKMRdgAAgNEIOwAAwGiEHQAAYDTCDgAAMBphBwAAGI2wAwAAjEbYAQAARiPsAAAAoxF2AACA0Qg7AADAaIQdAABgNL/CzpkzZwJdBwAAQKfwK+w89NBDGjlypDZv3qxvvvkm0DUBAAAEjF9h55NPPtHjjz+uefPmyel0asaMGfqv//qvQNcGAADQYX6FnfT0dBUWFurLL79UUVGRqqurNWzYMD3yyCMqLCzU//7v/wa6TgAAAL906AHl8PBwTZo0Sb/97W/11ltv6fPPP1d+fr569+6tV155RVVVVYGqEwAAwC8dCjuHDx/WrFmzlJiYqMLCQuXn5+vzzz/Xnj179OWXX+r5558PVJ0AAAB+CffnRYWFhSoqKtKpU6f07LPPauPGjXr22Wf1ve99m51SU1O1du1aPfzwwwEtFgAAoL38Cjtr1qzRa6+9pldffVVOp7PVPg888IDWrVvXoeIAAAA6yq+wc/r06Tv2iYyM1LRp0/w5PQAAQMD49cxOUVGRfve737Vo/93vfqcNGzZ0uCgAAIBA8SvsLFu2THFxcS3a4+PjtXTp0jafp6CgQE8++aSio6MVHx+vF154QadOnfLpY1mWFi9erKSkJHXr1k0jRozQyZMnffp4PB7l5uYqLi5OUVFRmjhxoi5cuODPpQEAAMP4FXbOnTun1NTUFu0pKSk6f/58m89TXl6u2bNn6+DBgyotLdW1a9eUmZmphoYGb5/ly5ersLBQq1ev1qFDh+R0OjV27FjV1dV5++Tl5amkpETFxcXav3+/6uvrNX78eDU3N/tzeQAAwCB+PbMTHx+vY8eOqU+fPj7tn3zyiXr27Nnm8+zcudNnv6ioSPHx8aqoqNDTTz8ty7K0atUqvfHGG5o8ebIkacOGDUpISNCWLVs0Y8YMuVwurVu3Tps2bdKYMWMkSZs3b1ZycrJ2796tcePG+XOJAADAEH6t7Lz00kv6+c9/rr1796q5uVnNzc3as2ePXn/9db300kt+F+NyuSRJsbGxkr79wdHq6mplZmZ6+9jtdg0fPlwHDhyQJFVUVOjq1as+fZKSkpSenu7tczOPxyO32+2zAQAAM/m1svPmm2/q3LlzGj16tMLDvz3F9evX9corr7TrmZ3vsixLc+fO1bBhw5Seni5Jqq6uliQlJCT49E1ISNC5c+e8fSIjI9WjR48WfW68/mYFBQVasmSJX3UCAICuxa+wExkZqa1bt+of//Ef9cknn6hbt24aMGCAUlJS/C5kzpw5OnbsmPbv39/imM1m89m3LKtF281u12fhwoWaO3eud9/tdis5OdmPqgEAQKjzK+zc0LdvX/Xt27fDReTm5uqjjz7Svn371Lt3b2/7jS8srK6uVmJiore9pqbGu9rjdDrV1NSk2tpan9WdmpoaDR06tNX3s9vtstvtHa4bAACEPr/CTnNzs9avX68//OEPqqmp0fXr132O79mzp03nsSxLubm5KikpUVlZWYtPeKWmpsrpdKq0tFSPP/64JKmpqUnl5eV66623JEkZGRmKiIhQaWmpsrOzJUlVVVU6ceKEli9f7s/lAQAAg/gVdl5//XWtX79ezz33nNLT0+94S+lWZs+erS1btuj3v/+9oqOjvc/YOBwOdevWTTabTXl5eVq6dKnS0tKUlpampUuXqnv37po6daq3b05OjubNm6eePXsqNjZW+fn5GjBggPfTWQAA4N7lV9gpLi7Wb3/7Wz377LMdevM1a9ZIkkaMGOHTXlRUpOnTp0uS5s+fr8bGRs2aNUu1tbUaNGiQdu3apejoaG//lStXKjw8XNnZ2WpsbNTo0aO1fv16hYWFdag+AADQ9dksy7La+6KkpCSVlZUF5HmdUOB2u+VwOORyuRQTExPscgCgS+qzYHuwS2i3s8ueC3YJ6IC2/v3263t25s2bp3feeUd+5CQAAIC7yq/bWPv379fevXv18ccf65FHHlFERITP8W3btgWkOAAAgI7yK+zcf//9mjRpUqBrAQAACDi/wk5RUVGg6wAAAOgUfj2zI0nXrl3T7t27tXbtWu8vkF+8eFH19fUBKw4AAKCj/FrZOXfunJ555hmdP39eHo9HY8eOVXR0tJYvX65vvvlG7733XqDrBAAA8ItfKzuvv/66Bg4cqNraWnXr1s3bPmnSJP3hD38IWHEAAAAd5fensf70pz8pMjLSpz0lJUVffvllQAoDAAAIBL9Wdq5fv67m5uYW7RcuXPD5ZmMAAIBg8yvsjB07VqtWrfLu22w21dfX65e//GWHf0ICAAAgkPy6jbVy5UqNHDlS/fv31zfffKOpU6fq9OnTiouL029+85tA1wgAAOA3v8JOUlKSjh49qt/85jf685//rOvXrysnJ0d/+7d/6/PAMgAAQLD5FXYkqVu3bnrttdf02muvBbIeAACAgPIr7GzcuPG2x1955RW/igEAAAg0v8LO66+/7rN/9epVff3114qMjFT37t0JOwAAIGT49Wms2tpan62+vl6nTp3SsGHDeEAZAACEFL9/G+tmaWlpWrZsWYtVHwAAgGAKWNiRpLCwMF28eDGQpwQAAOgQv57Z+eijj3z2LctSVVWVVq9erR/96EcBKQwAACAQ/Ao7L7zwgs++zWZTr169NGrUKL399tuBqAsAACAg/Ao7169fD3QdAAAAnSKgz+wAAACEGr9WdubOndvmvoWFhf68BQAAQED4FXaOHDmiP//5z7p27Zr69esnSfrss88UFhamJ554wtvPZrMFpkoAAAA/+RV2JkyYoOjoaG3YsEE9evSQ9O0XDb766qt66qmnNG/evIAWCQAA4C+/ntl5++23VVBQ4A06ktSjRw+9+eabfBoLAACEFL/Cjtvt1ldffdWivaamRnV1dR0uCgAAIFD8CjuTJk3Sq6++qvfff18XLlzQhQsX9P777ysnJ0eTJ08OdI0AAAB+8+uZnffee0/5+fn68Y9/rKtXr357ovBw5eTkaMWKFQEtEAAAoCP8Cjvdu3fXu+++qxUrVujzzz+XZVl66KGHFBUVFej6AAAAOqRDXypYVVWlqqoq9e3bV1FRUbIsK1B1AQAABIRfKzuXL19Wdna29u7dK5vNptOnT+sHP/iBfvKTn+j+++/nE1kA0EF9FmwPdgmAMfxa2fnFL36hiIgInT9/Xt27d/e2T5kyRTt37gxYcQAAAB3l18rOrl279B//8R/q3bu3T3taWprOnTsXkMIAAAACwa+VnYaGBp8VnRsuXboku93e4aIAAAACxa+w8/TTT2vjxo3efZvNpuvXr2vFihUaOXJkwIoDAADoKL9uY61YsUIjRozQ4cOH1dTUpPnz5+vkyZP6v//7P/3pT38KdI0AAAB+82tlp3///jp27Jh++MMfauzYsWpoaNDkyZN15MgRPfjgg4GuEQAAwG/tXtm5evWqMjMztXbtWi1ZsqQzagIAAAiYdq/sRERE6MSJE7LZbJ1RDwAAQED5dRvrlVde0bp16zr85vv27dOECROUlJQkm82mDz/80Of49OnTZbPZfLbBgwf79PF4PMrNzVVcXJyioqI0ceJEXbhwocO1AQAAM/j1gHJTU5P+7d/+TaWlpRo4cGCL38QqLCxs03kaGhr02GOP6dVXX9WLL77Yap9nnnlGRUVF3v3IyEif43l5efr3f/93FRcXq2fPnpo3b57Gjx+viooKhYWFtfPKAACAadoVdr744gv16dNHJ06c0BNPPCFJ+uyzz3z6tOf2VlZWlrKysm7bx263y+l0tnrM5XJp3bp12rRpk8aMGSNJ2rx5s5KTk7V7926NGzeuzbUAAAAztSvspKWlqaqqSnv37pX07c9D/Mu//IsSEhI6pThJKisrU3x8vO6//34NHz5c//RP/6T4+HhJUkVFhfeB6RuSkpKUnp6uAwcO3DLseDweeTwe777b7e60+gEAQHC165mdm3/V/OOPP1ZDQ0NAC/qurKws/frXv9aePXv09ttv69ChQxo1apQ3qFRXVysyMlI9evTweV1CQoKqq6tved6CggI5HA7vlpyc3GnXAAAAgsuvZ3ZuuDn8BNqUKVO8/05PT9fAgQOVkpKi7du3a/Lkybet63a30xYuXKi5c+d6991uN4EHAABDtWtl58Ynom5uu1sSExOVkpKi06dPS5KcTqeamppUW1vr06+mpua2t9bsdrtiYmJ8NgAAYKZ2rexYlqXp06d7f+zzm2++0cyZM1t8Gmvbtm2Bq/A7Ll++rMrKSiUmJkqSMjIyFBERodLSUmVnZ0uSqqqqdOLECS1fvrxTagAAAF1Lu8LOtGnTfPZ//OMfd+jN6+vr9Ze//MW7f+bMGR09elSxsbGKjY3V4sWL9eKLLyoxMVFnz57VokWLFBcXp0mTJkmSHA6HcnJyNG/ePPXs2VOxsbHKz8/XgAEDvJ/OAgAA97Z2hZ3vft9NIBw+fNjnV9JvPEczbdo0rVmzRsePH9fGjRt15coVJSYmauTIkdq6dauio6O9r1m5cqXCw8OVnZ2txsZGjR49WuvXr+c7dgAAgCTJZnX2U8ZdgNvtlsPhkMvl4vkdACGhz4LtwS7hnnB22XPBLgEd0Na/3379XAQAAEBXQdgBAABGI+wAAACjEXYAAIDRCDsAAMBohB0AAGA0wg4AADAaYQcAABiNsAMAAIxG2AEAAEYj7AAAAKMRdgAAgNEIOwAAwGiEHQAAYDTCDgAAMFp4sAsAgM7WZ8H2YJcAIIhY2QEAAEYj7AAAAKMRdgAAgNEIOwAAwGiEHQAAYDTCDgAAMBphBwAAGI2wAwAAjEbYAQAARiPsAAAAoxF2AACA0Qg7AADAaIQdAABgNMIOAAAwGmEHAAAYjbADAACMRtgBAABGI+wAAACjEXYAAIDRCDsAAMBohB0AAGA0wg4AADAaYQcAABiNsAMAAIwW1LCzb98+TZgwQUlJSbLZbPrwww99jluWpcWLFyspKUndunXTiBEjdPLkSZ8+Ho9Hubm5iouLU1RUlCZOnKgLFy7cxasAAAChLKhhp6GhQY899phWr17d6vHly5ersLBQq1ev1qFDh+R0OjV27FjV1dV5++Tl5amkpETFxcXav3+/6uvrNX78eDU3N9+tywAAACEsPJhvnpWVpaysrFaPWZalVatW6Y033tDkyZMlSRs2bFBCQoK2bNmiGTNmyOVyad26ddq0aZPGjBkjSdq8ebOSk5O1e/dujRs37q5dCwAACE0h+8zOmTNnVF1drczMTG+b3W7X8OHDdeDAAUlSRUWFrl696tMnKSlJ6enp3j6t8Xg8crvdPhsAADBTyIad6upqSVJCQoJPe0JCgvdYdXW1IiMj1aNHj1v2aU1BQYEcDod3S05ODnD1AAAgVIRs2LnBZrP57FuW1aLtZnfqs3DhQrlcLu9WWVkZkFoBAEDoCdmw43Q6JanFCk1NTY13tcfpdKqpqUm1tbW37NMau92umJgYnw0AAJgpZMNOamqqnE6nSktLvW1NTU0qLy/X0KFDJUkZGRmKiIjw6VNVVaUTJ054+wAAgHtbUD+NVV9fr7/85S/e/TNnzujo0aOKjY3VAw88oLy8PC1dulRpaWlKS0vT0qVL1b17d02dOlWS5HA4lJOTo3nz5qlnz56KjY1Vfn6+BgwY4P10FgAAuLcFNewcPnxYI0eO9O7PnTtXkjRt2jStX79e8+fPV2Njo2bNmqXa2loNGjRIu3btUnR0tPc1K1euVHh4uLKzs9XY2KjRo0dr/fr1CgsLu+vXAwAAQo/Nsiwr2EUEm9vtlsPhkMvl4vkdwEB9FmwPdgkIUWeXPRfsEtABbf37HbLP7AAAAAQCYQcAABgtqM/sAOh6uCUEoKthZQcAABiNsAMAAIxG2AEAAEYj7AAAAKMRdgAAgNH4NBYA4J7VFT9dyBchth8rOwAAwGiEHQAAYDTCDgAAMBphBwAAGI2wAwAAjEbYAQAARiPsAAAAoxF2AACA0Qg7AADAaIQdAABgNMIOAAAwGmEHAAAYjbADAACMRtgBAABGCw92AcC9rM+C7cEuAQCMx8oOAAAwGmEHAAAYjbADAACMRtgBAABGI+wAAACjEXYAAIDRCDsAAMBohB0AAGA0wg4AADAaYQcAABiNsAMAAIxG2AEAAEYj7AAAAKMRdgAAgNEIOwAAwGghHXYWL14sm83mszmdTu9xy7K0ePFiJSUlqVu3bhoxYoROnjwZxIoBAECoCemwI0mPPPKIqqqqvNvx48e9x5YvX67CwkKtXr1ahw4dktPp1NixY1VXVxfEigEAQCgJ+bATHh4up9Pp3Xr16iXp21WdVatW6Y033tDkyZOVnp6uDRs26Ouvv9aWLVuCXDUAAAgVIR92Tp8+raSkJKWmpuqll17SF198IUk6c+aMqqurlZmZ6e1rt9s1fPhwHThwIFjlAgCAEBMe7AJuZ9CgQdq4caP69u2rr776Sm+++aaGDh2qkydPqrq6WpKUkJDg85qEhASdO3futuf1eDzyeDzefbfbHfjiAQBASAjpsJOVleX994ABAzRkyBA9+OCD2rBhgwYPHixJstlsPq+xLKtF280KCgq0ZMmSwBcMAABCTsjfxvquqKgoDRgwQKdPn/Z+KuvGCs8NNTU1LVZ7brZw4UK5XC7vVllZ2Wk1AwCA4OpSYcfj8ei///u/lZiYqNTUVDmdTpWWlnqPNzU1qby8XEOHDr3teex2u2JiYnw2AABgppC+jZWfn68JEybogQceUE1Njd5880253W5NmzZNNptNeXl5Wrp0qdLS0pSWlqalS5eqe/fumjp1arBLBwAAISKkw86FCxf0N3/zN7p06ZJ69eqlwYMH6+DBg0pJSZEkzZ8/X42NjZo1a5Zqa2s1aNAg7dq1S9HR0UGuHAAAhAqbZVlWsIsINrfbLYfDIZfLxS0t3FV9FmwPdgkAupizy54Ldgkho61/v7vUMzsAAADtRdgBAABGI+wAAACjEXYAAIDRCDsAAMBohB0AAGA0wg4AADAaYQcAABiNsAMAAIxG2AEAAEYj7AAAAKMRdgAAgNEIOwAAwGiEHQAAYDTCDgAAMBphBwAAGI2wAwAAjEbYAQAARiPsAAAAoxF2AACA0Qg7AADAaIQdAABgNMIOAAAwGmEHAAAYLTzYBQCB0mfB9mCXAAAIQazsAAAAoxF2AACA0Qg7AADAaIQdAABgNMIOAAAwGmEHAAAYjbADAACMRtgBAABGI+wAAACjEXYAAIDR+LkIAAC6kK740zhnlz0X1Pcn7KBVXfE/JgAAWsNtLAAAYDTCDgAAMBphBwAAGM2YsPPuu+8qNTVV9913nzIyMvTHP/4x2CUBAIAQYMQDylu3blVeXp7effdd/ehHP9LatWuVlZWlTz/9VA888EBQa+NBXwAAgsuIlZ3CwkLl5OToJz/5if7qr/5Kq1atUnJystasWRPs0gAAQJB1+ZWdpqYmVVRUaMGCBT7tmZmZOnDgQKuv8Xg88ng83n2XyyVJcrvdAa/vuufrgJ8TAICupDP+vn73vJZl3bZflw87ly5dUnNzsxISEnzaExISVF1d3eprCgoKtGTJkhbtycnJnVIjAAD3Mseqzj1/XV2dHA7HLY93+bBzg81m89m3LKtF2w0LFy7U3LlzvftXrlxRSkqKzp8/f9vBQtu43W4lJyersrJSMTExwS6ny2M8A4vxDCzGM7AYz/axLEt1dXVKSkq6bb8uH3bi4uIUFhbWYhWnpqamxWrPDXa7XXa7vUW7w+FgcgVQTEwM4xlAjGdgMZ6BxXgGFuPZdm1ZpOjyDyhHRkYqIyNDpaWlPu2lpaUaOnRokKoCAAChosuv7EjS3Llz9fLLL2vgwIEaMmSIfvWrX+n8+fOaOXNmsEsDAABBZkTYmTJlii5fvqx/+Id/UFVVldLT07Vjxw6lpKS06fV2u12//OUvW721hfZjPAOL8QwsxjOwGM/AYjw7h8260+e1AAAAurAu/8wOAADA7RB2AACA0Qg7AADAaIQdAABgtHsm7Lz77rtKTU3Vfffdp4yMDP3xj3+8bf/y8nJlZGTovvvu0w9+8AO99957d6nSrqE941lWViabzdZi+5//+Z+7WHHo2rdvnyZMmKCkpCTZbDZ9+OGHd3wN8/PW2juezM9bKygo0JNPPqno6GjFx8frhRde0KlTp+74OuZn6/wZT+ZnYNwTYWfr1q3Ky8vTG2+8oSNHjuipp55SVlaWzp8/32r/M2fO6Nlnn9VTTz2lI0eOaNGiRfr5z3+uDz744C5XHpraO543nDp1SlVVVd4tLS3tLlUc2hoaGvTYY49p9erVberP/Ly99o7nDczPlsrLyzV79mwdPHhQpaWlunbtmjIzM9XQ0HDL1zA/b82f8byB+dlB1j3ghz/8oTVz5kyftocffthasGBBq/3nz59vPfzwwz5tM2bMsAYPHtxpNXYl7R3PvXv3WpKs2trau1Bd1ybJKikpuW0f5mfbtWU8mZ9tV1NTY0myysvLb9mH+dl2bRlP5mdgGL+y09TUpIqKCmVmZvq0Z2Zm6sCBA62+5j//8z9b9B83bpwOHz6sq1evdlqtXYE/43nD448/rsTERI0ePVp79+7tzDKNxvzsHMzPO3O5XJKk2NjYW/ZhfrZdW8bzBuZnxxgfdi5duqTm5uYWPwqakJDQ4sdDb6iurm61/7Vr13Tp0qVOq7Ur8Gc8ExMT9atf/UoffPCBtm3bpn79+mn06NHat2/f3SjZOMzPwGJ+to1lWZo7d66GDRum9PT0W/ZjfrZNW8eT+RkYRvxcRFvYbDaffcuyWrTdqX9r7feq9oxnv3791K9fP+/+kCFDVFlZqX/+53/W008/3al1mor5GTjMz7aZM2eOjh07pv3799+xL/Pzzto6nszPwDB+ZScuLk5hYWEtVh1qampa/N/HDU6ns9X+4eHh6tmzZ6fV2hX4M56tGTx4sE6fPh3o8u4JzM/Ox/z0lZubq48++kh79+5V7969b9uX+Xln7RnP1jA/28/4sBMZGamMjAyVlpb6tJeWlmro0KGtvmbIkCEt+u/atUsDBw5UREREp9XaFfgznq05cuSIEhMTA13ePYH52fmYn9+yLEtz5szRtm3btGfPHqWmpt7xNczPW/NnPFvD/PRD0B6NvouKi4utiIgIa926ddann35q5eXlWVFRUdbZs2cty7KsBQsWWC+//LK3/xdffGF1797d+sUvfmF9+umn1rp166yIiAjr/fffD9YlhJT2jufKlSutkpIS67PPPrNOnDhhLViwwJJkffDBB8G6hJBSV1dnHTlyxDpy5IglySosLLSOHDlinTt3zrIs5md7tXc8mZ+39rOf/cxyOBxWWVmZVVVV5d2+/vprbx/mZ9v5M57Mz8C4J8KOZVnWv/7rv1opKSlWZGSk9cQTT/h81G/atGnW8OHDffqXlZVZjz/+uBUZGWn16dPHWrNmzV2uOLS1Zzzfeust68EHH7Tuu+8+q0ePHtawYcOs7du3B6Hq0HTjo6U3b9OmTbMsi/nZXu0dT+bnrbU2jpKsoqIibx/mZ9v5M57Mz8CwWdb/9+QYAACAgYx/ZgcAANzbCDsAAMBohB0AAGA0wg4AADAaYQcAABiNsAMAAIxG2AEAAEYj7AAAAKMRdgAAgNEIOwAAwGiEHQAAYDTCDgAAMNr/AzwhOXBzZwIgAAAAAElFTkSuQmCC\\n\",\n      \"text/plain\": [\n       \"<Figure size 640x480 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"filtered_templates = filtered_templates.assign(\\n\",\n    \"    dissimilarity=calculate_similarity(true_struct, *filtered_templates.structure),\\n\",\n    \"    target_formula=[full_formula] * filtered_templates.shape[0],\\n\",\n    \"    target_space_group_num=[spg_num] * filtered_templates.shape[0]\\n\",\n    \").sort_values('dissimilarity')\\n\",\n    \"\\n\",\n    \"filtered_templates.dissimilarity.plot.hist()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Considering that multiple crystals in the database belong to the same prototype structure (for example, 8,005 compounds have the same composition ratio A$_1$B$_1$C$_2$), a cluster-based template selection procedure was introduced. The objective is to select highly relevant templates with the query composition $\\\\mathrm{Zr}\\\\mathrm{O}_2$ while maintaining the diversity of the template structures. We applied DBSCAN to classify the templates into clusters in which the chemical compositions were converted into 290-dimensional compositional descriptors using XenonPy. Only the templates belonging to the same cluster as $\\\\mathrm{Zr}\\\\mathrm{O}_2$ were selected.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/tmp/ipykernel_615149/482518645.py:5: SettingWithCopyWarning: \\n\",\n      \"A value is trying to be set on a copy of a slice from a DataFrame\\n\",\n      \"\\n\",\n      \"See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy\\n\",\n      \"  comps['target'] = demo_target.composition\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"  Target class number: 0\\n\",\n      \"  Estimated number of clusters: 12\\n\",\n      \"  Estimated number of noise points: 384\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import Compositions\\n\",\n    \"from sklearn.cluster import DBSCAN\\n\",\n    \"from sklearn.preprocessing import StandardScaler\\n\",\n    \"\\n\",\n    \"desc_cal = Compositions()\\n\",\n    \"\\n\",\n    \"# Compute DBSCAN\\n\",\n    \"comps = filtered_templates.composition\\n\",\n    \"comps['target'] = demo_target.composition\\n\",\n    \"desc = desc_cal.fit_transform(comps)\\n\",\n    \"X = StandardScaler().fit_transform(desc)\\n\",\n    \"\\n\",\n    \"db = DBSCAN(eps=9, min_samples=10).fit(X)\\n\",\n    \"labels = db.labels_\\n\",\n    \"\\n\",\n    \"# Number of clusters in labels, ignoring noise if present.\\n\",\n    \"n_clusters_ = len(set(labels)) - (1 if -1 in labels else 0)\\n\",\n    \"n_noise_ = list(labels).count(-1)\\n\",\n    \"\\n\",\n    \"print('  Target class number: %d' % labels[-1])\\n\",\n    \"print('  Estimated number of clusters: %d' % n_clusters_)\\n\",\n    \"print('  Estimated number of noise points: %d' % n_noise_)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(89, 23)\"\n      ]\n     },\n     \"execution_count\": 10,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<Axes: ylabel='Frequency'>\"\n      ]\n     },\n     \"execution_count\": 10,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 640x480 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"target_label = labels[-1]\\n\",\n    \"template_labels = labels[:-1]\\n\",\n    \"\\n\",\n    \"structs_ = filtered_templates.iloc[template_labels == target_label]\\n\",\n    \"structs_.shape\\n\",\n    \"structs_.dissimilarity.plot.hist()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"In addition, to eliminate structurally redundant templates, we used Pymatgen's StructureMatcher module to construct a unique set of templates that did not contain identical prototype structures.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"for spg: 1, size: 3\\n\",\n      \"for spg: 2, size: 7\\n\",\n      \"for spg: 4, size: 1\\n\",\n      \"for spg: 10, size: 2\\n\",\n      \"for spg: 11, size: 1\\n\",\n      \"for spg: 12, size: 9\\n\",\n      \"for spg: 14, size: 3\\n\",\n      \"for spg: 15, size: 2\\n\",\n      \"for spg: 18, size: 1\\n\",\n      \"for spg: 29, size: 1\\n\",\n      \"for spg: 44, size: 1\\n\",\n      \"for spg: 60, size: 4\\n\",\n      \"for spg: 62, size: 10\\n\",\n      \"for spg: 63, size: 8\\n\",\n      \"for spg: 70, size: 2\\n\",\n      \"for spg: 74, size: 6\\n\",\n      \"for spg: 87, size: 6\\n\",\n      \"for spg: 88, size: 1\\n\",\n      \"for spg: 111, size: 1\\n\",\n      \"for spg: 141, size: 1\\n\",\n      \"for spg: 160, size: 7\\n\",\n      \"for spg: 205, size: 6\\n\",\n      \"for spg: 227, size: 6\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(44, 4)\"\n      ]\n     },\n     \"execution_count\": 11,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>space_group_num</th>\\n\",\n       \"      <th>dissimilarity</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>[[2.82319719 4.36285554 3.72176206] Hf, [0.222...</td>\\n\",\n       \"      <td>{'Hf': 4.0, 'O': 8.0}</td>\\n\",\n       \"      <td>14</td>\\n\",\n       \"      <td>0.130907</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>[[1.3678768  1.24913405 0.18071245] Hf, [1.367...</td>\\n\",\n       \"      <td>{'Hf': 4.0, 'O': 8.0}</td>\\n\",\n       \"      <td>29</td>\\n\",\n       \"      <td>0.494103</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>[[3.67241649 1.45548662 1.50319392] Hf, [1.371...</td>\\n\",\n       \"      <td>{'Hf': 4.0, 'O': 8.0}</td>\\n\",\n       \"      <td>18</td>\\n\",\n       \"      <td>0.636794</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                           structure            composition  \\\\\\n\",\n       \"0  [[2.82319719 4.36285554 3.72176206] Hf, [0.222...  {'Hf': 4.0, 'O': 8.0}   \\n\",\n       \"1  [[1.3678768  1.24913405 0.18071245] Hf, [1.367...  {'Hf': 4.0, 'O': 8.0}   \\n\",\n       \"2  [[3.67241649 1.45548662 1.50319392] Hf, [1.371...  {'Hf': 4.0, 'O': 8.0}   \\n\",\n       \"\\n\",\n       \"   space_group_num  dissimilarity  \\n\",\n       \"0               14       0.130907  \\n\",\n       \"1               29       0.494103  \\n\",\n       \"2               18       0.636794  \"\n      ]\n     },\n     \"execution_count\": 11,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<Axes: ylabel='Frequency'>\"\n      ]\n     },\n     \"execution_count\": 11,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 640x480 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"from pymatgen.analysis.structure_matcher import StructureMatcher\\n\",\n    \"\\n\",\n    \"matcher = StructureMatcher(ltol=0.05, angle_tol=3)\\n\",\n    \"\\n\",\n    \"ret = []\\n\",\n    \"for spg_num_, ss in structs_.groupby('space_group_num'):\\n\",\n    \"    print(f'for spg: {spg_num_}, size: {ss.shape[0]}')\\n\",\n    \"    cand_structs = ss.structure\\n\",\n    \"\\n\",\n    \"    # final condidate\\n\",\n    \"    cand_structs = matcher.group_structures(cand_structs, anonymous=True)\\n\",\n    \"    for s in cand_structs:\\n\",\n    \"        ret.append([s[0]])\\n\",\n    \"\\n\",\n    \"if len(ret) == 0:\\n\",\n    \"    print('No templates')\\n\",\n    \"ret = pd.DataFrame(ret, columns=['structure'])\\n\",\n    \"filtered_templates = ret.assign(\\n\",\n    \"    composition=ret.structure.apply(lambda s: dict(s.composition.as_dict())),\\n\",\n    \"    space_group_num=ret.structure.apply(lambda s: s.get_space_group_info()[1]),\\n\",\n    \"    dissimilarity=calculate_similarity(true_struct, *ret.structure),\\n\",\n    \").sort_values('dissimilarity').reset_index(drop=True)\\n\",\n    \"\\n\",\n    \"filtered_templates.shape\\n\",\n    \"filtered_templates.head(3)\\n\",\n    \"filtered_templates.dissimilarity.plot.hist()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Save templates for reusing.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [],\n   \"source\": [\n    \"filtered_templates.to_pickle('generated/filtered_templates.pd.xz')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 3. Element substitution\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 13,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>atomic_radius</th>\\n\",\n       \"      <th>atomic_radius_rahm</th>\\n\",\n       \"      <th>atomic_volume</th>\\n\",\n       \"      <th>atomic_weight</th>\\n\",\n       \"      <th>boiling_point</th>\\n\",\n       \"      <th>bulk_modulus</th>\\n\",\n       \"      <th>c6_gb</th>\\n\",\n       \"      <th>covalent_radius_cordero</th>\\n\",\n       \"      <th>covalent_radius_pyykko</th>\\n\",\n       \"      <th>covalent_radius_pyykko_double</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>num_s_unfilled</th>\\n\",\n       \"      <th>num_s_valence</th>\\n\",\n       \"      <th>specific_heat</th>\\n\",\n       \"      <th>thermal_conductivity</th>\\n\",\n       \"      <th>vdw_radius</th>\\n\",\n       \"      <th>vdw_radius_alvarez</th>\\n\",\n       \"      <th>vdw_radius_mm3</th>\\n\",\n       \"      <th>vdw_radius_uff</th>\\n\",\n       \"      <th>sound_velocity</th>\\n\",\n       \"      <th>Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>H</th>\\n\",\n       \"      <td>79.000000</td>\\n\",\n       \"      <td>154.0</td>\\n\",\n       \"      <td>14.1</td>\\n\",\n       \"      <td>1.008000</td>\\n\",\n       \"      <td>20.280</td>\\n\",\n       \"      <td>56.79964</td>\\n\",\n       \"      <td>6.51</td>\\n\",\n       \"      <td>31.0</td>\\n\",\n       \"      <td>32.0</td>\\n\",\n       \"      <td>111.419933</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.122728</td>\\n\",\n       \"      <td>0.1805</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>1270.0</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>He</th>\\n\",\n       \"      <td>147.832643</td>\\n\",\n       \"      <td>134.0</td>\\n\",\n       \"      <td>31.8</td>\\n\",\n       \"      <td>4.002602</td>\\n\",\n       \"      <td>4.216</td>\\n\",\n       \"      <td>85.10663</td>\\n\",\n       \"      <td>1.47</td>\\n\",\n       \"      <td>28.0</td>\\n\",\n       \"      <td>46.0</td>\\n\",\n       \"      <td>114.708355</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>5.188000</td>\\n\",\n       \"      <td>0.1513</td>\\n\",\n       \"      <td>140.0</td>\\n\",\n       \"      <td>143.0</td>\\n\",\n       \"      <td>153.0</td>\\n\",\n       \"      <td>236.2</td>\\n\",\n       \"      <td>970.0</td>\\n\",\n       \"      <td>0.205052</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Li</th>\\n\",\n       \"      <td>155.000000</td>\\n\",\n       \"      <td>220.0</td>\\n\",\n       \"      <td>13.1</td>\\n\",\n       \"      <td>6.940000</td>\\n\",\n       \"      <td>1118.150</td>\\n\",\n       \"      <td>11.00000</td>\\n\",\n       \"      <td>1410.00</td>\\n\",\n       \"      <td>128.0</td>\\n\",\n       \"      <td>133.0</td>\\n\",\n       \"      <td>124.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>3.489000</td>\\n\",\n       \"      <td>85.0000</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>212.0</td>\\n\",\n       \"      <td>255.0</td>\\n\",\n       \"      <td>245.1</td>\\n\",\n       \"      <td>6000.0</td>\\n\",\n       \"      <td>24.330000</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>3 rows × 56 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"    atomic_radius  atomic_radius_rahm  atomic_volume  atomic_weight  \\\\\\n\",\n       \"H       79.000000               154.0           14.1       1.008000   \\n\",\n       \"He     147.832643               134.0           31.8       4.002602   \\n\",\n       \"Li     155.000000               220.0           13.1       6.940000   \\n\",\n       \"\\n\",\n       \"    boiling_point  bulk_modulus    c6_gb  covalent_radius_cordero  \\\\\\n\",\n       \"H          20.280      56.79964     6.51                     31.0   \\n\",\n       \"He          4.216      85.10663     1.47                     28.0   \\n\",\n       \"Li       1118.150      11.00000  1410.00                    128.0   \\n\",\n       \"\\n\",\n       \"    covalent_radius_pyykko  covalent_radius_pyykko_double  ...  \\\\\\n\",\n       \"H                     32.0                     111.419933  ...   \\n\",\n       \"He                    46.0                     114.708355  ...   \\n\",\n       \"Li                   133.0                     124.000000  ...   \\n\",\n       \"\\n\",\n       \"    num_s_unfilled  num_s_valence  specific_heat  thermal_conductivity  \\\\\\n\",\n       \"H              1.0            1.0       1.122728                0.1805   \\n\",\n       \"He             0.0            2.0       5.188000                0.1513   \\n\",\n       \"Li             1.0            1.0       3.489000               85.0000   \\n\",\n       \"\\n\",\n       \"    vdw_radius  vdw_radius_alvarez  vdw_radius_mm3  vdw_radius_uff  \\\\\\n\",\n       \"H        110.0               120.0           162.0           288.6   \\n\",\n       \"He       140.0               143.0           153.0           236.2   \\n\",\n       \"Li       182.0               212.0           255.0           245.1   \\n\",\n       \"\\n\",\n       \"    sound_velocity  Polarizability  \\n\",\n       \"H           1270.0        0.666793  \\n\",\n       \"He           970.0        0.205052  \\n\",\n       \"Li          6000.0       24.330000  \\n\",\n       \"\\n\",\n       \"[3 rows x 56 columns]\"\n      ]\n     },\n     \"execution_count\": 13,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.datatools import preset\\n\",\n    \"\\n\",\n    \"elem_info = preset.elements_completed.drop(columns=['atomic_number', 'period'])\\n\",\n    \"\\n\",\n    \"elem_info.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [],\n   \"source\": [\n    \"covalent_radius = {\\n\",\n    \"  \\\"H\\\": 0.26,\\n\",\n    \"  \\\"He\\\": 0.28,\\n\",\n    \"  \\\"Li\\\": 1.21,\\n\",\n    \"  \\\"Be\\\": 0.93,\\n\",\n    \"  \\\"B\\\": 0.81,\\n\",\n    \"  \\\"C\\\": 0.68,\\n\",\n    \"  \\\"N\\\": 0.7,\\n\",\n    \"  \\\"O\\\": 0.64,\\n\",\n    \"  \\\"F\\\": 0.54,\\n\",\n    \"  \\\"Ne\\\": 0.58,\\n\",\n    \"  \\\"Na\\\": 1.59,\\n\",\n    \"  \\\"Mg\\\": 1.34,\\n\",\n    \"  \\\"Al\\\": 1.18,\\n\",\n    \"  \\\"Si\\\": 1.09,\\n\",\n    \"  \\\"P\\\": 1.04,\\n\",\n    \"  \\\"S\\\": 1.02,\\n\",\n    \"  \\\"Cl\\\": 0.98,\\n\",\n    \"  \\\"Ar\\\": 0.96,\\n\",\n    \"  \\\"K\\\": 1.91,\\n\",\n    \"  \\\"Ca\\\": 1.86,\\n\",\n    \"  \\\"Sc\\\": 1.63,\\n\",\n    \"  \\\"Ti\\\": 1.52,\\n\",\n    \"  \\\"V\\\": 1.45,\\n\",\n    \"  \\\"Cr\\\": 1.34,\\n\",\n    \"  \\\"Mn\\\": 1.34,\\n\",\n    \"  \\\"Fe\\\": 1.29,\\n\",\n    \"  \\\"Co\\\": 1.23,\\n\",\n    \"  \\\"Ni\\\": 1.2,\\n\",\n    \"  \\\"Cu\\\": 1.28,\\n\",\n    \"  \\\"Zn\\\": 1.18,\\n\",\n    \"  \\\"Ga\\\": 1.19,\\n\",\n    \"  \\\"Ge\\\": 1.18,\\n\",\n    \"  \\\"As\\\": 1.15,\\n\",\n    \"  \\\"Se\\\": 1.16,\\n\",\n    \"  \\\"Br\\\": 1.17,\\n\",\n    \"  \\\"Kr\\\": 1.12,\\n\",\n    \"  \\\"Rb\\\": 2.11,\\n\",\n    \"  \\\"Sr\\\": 1.85,\\n\",\n    \"  \\\"Y\\\": 1.83,\\n\",\n    \"  \\\"Zr\\\": 1.68,\\n\",\n    \"  \\\"Nb\\\": 1.58,\\n\",\n    \"  \\\"Mo\\\": 1.49,\\n\",\n    \"  \\\"Tc\\\": 1.4,\\n\",\n    \"  \\\"Ru\\\": 1.39,\\n\",\n    \"  \\\"Rh\\\": 1.35,\\n\",\n    \"  \\\"Pd\\\": 1.33,\\n\",\n    \"  \\\"Ag\\\": 1.4,\\n\",\n    \"  \\\"Cd\\\": 1.35,\\n\",\n    \"  \\\"In\\\": 1.37,\\n\",\n    \"  \\\"Sn\\\": 1.35,\\n\",\n    \"  \\\"Sb\\\": 1.34,\\n\",\n    \"  \\\"Te\\\": 1.34,\\n\",\n    \"  \\\"I\\\": 1.36,\\n\",\n    \"  \\\"Xe\\\": 1.31,\\n\",\n    \"  \\\"Cs\\\": 2.33,\\n\",\n    \"  \\\"Ba\\\": 2.04,\\n\",\n    \"  \\\"La\\\": 1.99,\\n\",\n    \"  \\\"Ce\\\": 1.95,\\n\",\n    \"  \\\"Pr\\\": 1.96,\\n\",\n    \"  \\\"Nd\\\": 1.95,\\n\",\n    \"  \\\"Pm\\\": 1.99,\\n\",\n    \"  \\\"Sm\\\": 1.9,\\n\",\n    \"  \\\"Eu\\\": 1.93,\\n\",\n    \"  \\\"Gd\\\": 1.9,\\n\",\n    \"  \\\"Tb\\\": 1.89,\\n\",\n    \"  \\\"Dy\\\": 1.85,\\n\",\n    \"  \\\"Ho\\\": 1.85,\\n\",\n    \"  \\\"Er\\\": 1.83,\\n\",\n    \"  \\\"Tm\\\": 1.8,\\n\",\n    \"  \\\"Yb\\\": 1.79,\\n\",\n    \"  \\\"Lu\\\": 1.65,\\n\",\n    \"  \\\"Hf\\\": 1.81,\\n\",\n    \"  \\\"Ta\\\": 1.62,\\n\",\n    \"  \\\"W\\\": 1.55,\\n\",\n    \"  \\\"Re\\\": 1.44,\\n\",\n    \"  \\\"Os\\\": 1.4,\\n\",\n    \"  \\\"Ir\\\": 1.35,\\n\",\n    \"  \\\"Pt\\\": 1.31,\\n\",\n    \"  \\\"Au\\\": 1.33,\\n\",\n    \"  \\\"Hg\\\": 1.27,\\n\",\n    \"  \\\"Tl\\\": 1.38,\\n\",\n    \"  \\\"Pb\\\": 1.41,\\n\",\n    \"  \\\"Bi\\\": 1.44,\\n\",\n    \"  \\\"Po\\\": 1.36,\\n\",\n    \"  \\\"At\\\": 1.5,\\n\",\n    \"  \\\"Rn\\\": 1.5,\\n\",\n    \"  \\\"Fr\\\": 2.6,\\n\",\n    \"  \\\"Ra\\\": 2.19,\\n\",\n    \"  \\\"Ac\\\": 2.15,\\n\",\n    \"  \\\"Th\\\": 2.0,\\n\",\n    \"  \\\"Pa\\\": 2.0,\\n\",\n    \"  \\\"U\\\": 1.89,\\n\",\n    \"  \\\"Np\\\": 1.89,\\n\",\n    \"  \\\"Pu\\\": 1.86,\\n\",\n    \"  \\\"Am\\\": 1.74,\\n\",\n    \"  \\\"Cm\\\": 1.66\\n\",\n    \"}\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [],\n   \"source\": [\n    \"from scipy.spatial.distance import cdist\\n\",\n    \"from itertools import product\\n\",\n    \"\\n\",\n    \"dis_matrix = cdist(elem_info, elem_info, 'seuclidean')\\n\",\n    \"dis_matrix = pd.DataFrame(dis_matrix, index=elem_info.index, columns=elem_info.index)\\n\",\n    \"\\n\",\n    \"def gen_replace_rule(tpl: dict, tar: dict) -> dict:\\n\",\n    \"    def extract(comp: dict) -> list:\\n\",\n    \"        ret = defaultdict(list)\\n\",\n    \"        for k, v in comp.items():\\n\",\n    \"            ret[v].append(k)\\n\",\n    \"\\n\",\n    \"        return [ret[k] for k in sorted(ret.keys())]\\n\",\n    \"    \\n\",\n    \"    tpl_pattern = extract(tpl)\\n\",\n    \"    tar_pattern = extract(tar)\\n\",\n    \"    \\n\",\n    \"    ret = {}\\n\",\n    \"    for tpl_e, tar_e in zip(tpl_pattern, tar_pattern):\\n\",\n    \"        if len(tpl) == 1:\\n\",\n    \"            ret[tpl_e[0]] = tar_e[0]\\n\",\n    \"        else:\\n\",\n    \"            dists = sorted([(dis_matrix.loc[e1, e2], e1, e2) for e1, e2 in product(tpl_e, tar_e)], key=lambda s: s[0])\\n\",\n    \"            while len(dists) > 0:\\n\",\n    \"                _, e1, e2 = dists.pop(0)\\n\",\n    \"                ret[e1] = e2\\n\",\n    \"                dists = [(d, e1_, e2_) for d, e1_, e2_ in dists if e1_ != e1 and e2_ != e2]\\n\",\n    \"    \\n\",\n    \"    return ret\\n\",\n    \"            \\n\",\n    \"\\n\",\n    \"def check_dis(struct, *, tot=0.1):\\n\",\n    \"    sites = struct.sites\\n\",\n    \"    dis_matrix = struct.distance_matrix\\n\",\n    \"    d = []\\n\",\n    \"\\n\",\n    \"    for s1, s2 in product(sites, sites):\\n\",\n    \"        d.append((covalent_radius[str(s1.specie)] + covalent_radius[str(s2.specie)]) * (1 - tot))\\n\",\n    \"    d = np.asarray(d)\\n\",\n    \"    d = d.reshape(int(np.sqrt(d.size)), -1)\\n\",\n    \"    np.fill_diagonal(d, 0.)\\n\",\n    \"    \\n\",\n    \"    return np.all((dis_matrix - d) >= 0)\\n\",\n    \"\\n\",\n    \"def gen(row, vol, g, target_formula):\\n\",\n    \"    s = row.structure.copy()\\n\",\n    \"    s.replace_species(rule)\\n\",\n    \"    s.scale_lattice(vol)\\n\",\n    \"    \\n\",\n    \"    if check_dis(s, tot=dis_tot):\\n\",\n    \"        return (s, target_formula, row.space_group_num, g, row.dissimilarity)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"447924d8650940f9b31ad9f8eebe29ec\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Zr4O8:   0%|          | 0/44 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(5117, 5)\"\n      ]\n     },\n     \"execution_count\": 16,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"      <th>target_formula</th>\\n\",\n       \"      <th>space_group_num</th>\\n\",\n       \"      <th>structure_group</th>\\n\",\n       \"      <th>dissimilarity</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3894</th>\\n\",\n       \"      <td>[[ 3.78213132e+00  2.67440362e+00 -3.47029717e...</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>88</td>\\n\",\n       \"      <td>29</td>\\n\",\n       \"      <td>2.105175</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4712</th>\\n\",\n       \"      <td>[[2.67819546 0.         0.        ] Zr, [0.   ...</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>205</td>\\n\",\n       \"      <td>41</td>\\n\",\n       \"      <td>2.330398</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2206</th>\\n\",\n       \"      <td>[[5.40761366 1.19064409 3.29866046] Zr, [2.329...</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>1.753520</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2965</th>\\n\",\n       \"      <td>[[2.73016113 2.73016113 0.        ] Zr, [2.730...</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>205</td>\\n\",\n       \"      <td>8</td>\\n\",\n       \"      <td>1.907167</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4181</th>\\n\",\n       \"      <td>[[2.65952872 0.         0.        ] Zr, [0.   ...</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>205</td>\\n\",\n       \"      <td>41</td>\\n\",\n       \"      <td>2.330398</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                              structure target_formula  \\\\\\n\",\n       \"3894  [[ 3.78213132e+00  2.67440362e+00 -3.47029717e...          Zr4O8   \\n\",\n       \"4712  [[2.67819546 0.         0.        ] Zr, [0.   ...          Zr4O8   \\n\",\n       \"2206  [[5.40761366 1.19064409 3.29866046] Zr, [2.329...          Zr4O8   \\n\",\n       \"2965  [[2.73016113 2.73016113 0.        ] Zr, [2.730...          Zr4O8   \\n\",\n       \"4181  [[2.65952872 0.         0.        ] Zr, [0.   ...          Zr4O8   \\n\",\n       \"\\n\",\n       \"      space_group_num  structure_group  dissimilarity  \\n\",\n       \"3894               88               29       2.105175  \\n\",\n       \"4712              205               41       2.330398  \\n\",\n       \"2206                4                5       1.753520  \\n\",\n       \"2965              205                8       1.907167  \\n\",\n       \"4181              205               41       2.330398  \"\n      ]\n     },\n     \"execution_count\": 16,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"n_structs = 1000\\n\",\n    \"volume_perturbation = 0.2\\n\",\n    \"dis_tot = 0.1\\n\",\n    \"n_jobs = 10\\n\",\n    \"\\n\",\n    \"pred_volume = demo_target.pred_volume\\n\",\n    \"target_comp = demo_target.composition\\n\",\n    \"target_formula = demo_target.full_formula\\n\",\n    \"\\n\",\n    \"ret = []\\n\",\n    \"for i, (idx, row) in tqdm(list(enumerate(filtered_templates.iterrows())), desc=full_formula):\\n\",\n    \"    rule = gen_replace_rule(row.composition, target_comp)\\n\",\n    \"    \\n\",\n    \"    ret += Parallel(n_jobs=n_jobs)(delayed(gen)(row, vol, i, target_formula) for vol in np.random.normal(pred_volume, pred_volume * volume_perturbation, size=n_structs))\\n\",\n    \"\\n\",\n    \"ret = [t for t in ret if t is not None]\\n\",\n    \"structure_candidate = pd.DataFrame(ret, columns=['structure', 'target_formula', 'space_group_num', 'structure_group', 'dissimilarity'])\\n\",\n    \"\\n\",\n    \"structure_candidate.shape\\n\",\n    \"structure_candidate.sample(5)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"source\": [\n    \"Save generated virtual structures\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 17,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [],\n   \"source\": [\n    \"structure_candidate.to_pickle(f'generated/structure_candidate.pd.xz')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 4. Calculate CGCNN descriptor and prepare instances for single point calculation\\n\",\n    \"\\n\",\n    \"Calculate CGCNN descriptors\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.descriptor import CrystalGraphFeaturizer\\n\",\n    \"\\n\",\n    \"cg_featurizer = CrystalGraphFeaturizer(atom_feature='origin', radius=8, n_jobs=5)\\n\",\n    \"\\n\",\n    \"cg_features = cg_featurizer.transform(structure_candidate.structure)\\n\",\n    \"cg_features.to_pickle(str(f'generated/structure_candidate_cgcnn_features.pd'))\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Select unopt structures\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 19,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [],\n   \"source\": [\n    \"N_UNOPT = 10\\n\",\n    \"\\n\",\n    \"single_point_candidate = structure_candidate.groupby('structure_group').sample(N_UNOPT, replace=True)\\n\",\n    \"single_point_candidate.to_pickle(f'generated/single_point_candidate.xz.pd')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Here, users must perform single-point DFT energy calculations to create a training dataset of structure-energy instances in the transfer learning process. We assume that the DFT calculations have already been done and the results are saved in the file `single_point_results.xz.pd`.\\n\",\n    \"\\n\",\n    \"This sample code set provides a VASP calculation result from our study for those who are not comfortable performing DFT calculations. Please note that the structure data provided are not exactly the same as those generated above, as this code is only provided for demonstration purposes. Also, please note that only structures that have been successfully converged have been collected. \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 20,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"      <th>target_formula</th>\\n\",\n       \"      <th>space_group</th>\\n\",\n       \"      <th>space_group_num</th>\\n\",\n       \"      <th>dissimilarity</th>\\n\",\n       \"      <th>formation_energy_per_atom</th>\\n\",\n       \"      <th>final_energy_per_atom</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>13345</th>\\n\",\n       \"      <td>[[0.84004836 1.40161604 5.96268943] Zr, [0.840...</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>Pnma</td>\\n\",\n       \"      <td>62</td>\\n\",\n       \"      <td>0.992863</td>\\n\",\n       \"      <td>-3.327849</td>\\n\",\n       \"      <td>-9.475720</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>13346</th>\\n\",\n       \"      <td>[[3.52539762 1.39721872 1.44301614] Zr, [1.316...</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>P2_12_12</td>\\n\",\n       \"      <td>18</td>\\n\",\n       \"      <td>0.636794</td>\\n\",\n       \"      <td>-3.301080</td>\\n\",\n       \"      <td>-9.448950</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>13347</th>\\n\",\n       \"      <td>[[0.92829469 1.17992972 1.91905367] Zr, [4.772...</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>P1</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>2.121633</td>\\n\",\n       \"      <td>-0.954553</td>\\n\",\n       \"      <td>-7.102423</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>13348</th>\\n\",\n       \"      <td>[[3.54745601 1.40596111 1.45204508] Zr, [1.324...</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>P2_12_12</td>\\n\",\n       \"      <td>18</td>\\n\",\n       \"      <td>0.636794</td>\\n\",\n       \"      <td>-3.326914</td>\\n\",\n       \"      <td>-9.474785</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>13349</th>\\n\",\n       \"      <td>[[0.82535534 1.37710081 5.85839787] Zr, [0.825...</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>Pnma</td>\\n\",\n       \"      <td>62</td>\\n\",\n       \"      <td>0.992863</td>\\n\",\n       \"      <td>-3.305021</td>\\n\",\n       \"      <td>-9.452892</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>13452</th>\\n\",\n       \"      <td>[[0.8479214  1.41475215 6.01857247] Zr, [0.847...</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>Pnma</td>\\n\",\n       \"      <td>62</td>\\n\",\n       \"      <td>0.992863</td>\\n\",\n       \"      <td>-3.320972</td>\\n\",\n       \"      <td>-9.468843</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>13453</th>\\n\",\n       \"      <td>[[1.32868312 1.2133427  0.17553451] Zr, [1.328...</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>Pca2_1</td>\\n\",\n       \"      <td>29</td>\\n\",\n       \"      <td>0.494103</td>\\n\",\n       \"      <td>-3.373758</td>\\n\",\n       \"      <td>-9.521629</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>13454</th>\\n\",\n       \"      <td>[[1.29333833 1.18106613 0.17086506] Zr, [1.293...</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>Pca2_1</td>\\n\",\n       \"      <td>29</td>\\n\",\n       \"      <td>0.494103</td>\\n\",\n       \"      <td>-3.199693</td>\\n\",\n       \"      <td>-9.347563</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>13455</th>\\n\",\n       \"      <td>[[0.         5.9796572  2.03446975] Zr, [2.051...</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>C2/c</td>\\n\",\n       \"      <td>15</td>\\n\",\n       \"      <td>2.092321</td>\\n\",\n       \"      <td>-1.922489</td>\\n\",\n       \"      <td>-8.070360</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>13456</th>\\n\",\n       \"      <td>[[1.31199976 1.1981076  0.17333045] Zr, [1.311...</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>Pca2_1</td>\\n\",\n       \"      <td>29</td>\\n\",\n       \"      <td>0.494103</td>\\n\",\n       \"      <td>-3.309452</td>\\n\",\n       \"      <td>-9.457323</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>112 rows × 7 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                               structure target_formula  \\\\\\n\",\n       \"13345  [[0.84004836 1.40161604 5.96268943] Zr, [0.840...          Zr4O8   \\n\",\n       \"13346  [[3.52539762 1.39721872 1.44301614] Zr, [1.316...          Zr4O8   \\n\",\n       \"13347  [[0.92829469 1.17992972 1.91905367] Zr, [4.772...          Zr4O8   \\n\",\n       \"13348  [[3.54745601 1.40596111 1.45204508] Zr, [1.324...          Zr4O8   \\n\",\n       \"13349  [[0.82535534 1.37710081 5.85839787] Zr, [0.825...          Zr4O8   \\n\",\n       \"...                                                  ...            ...   \\n\",\n       \"13452  [[0.8479214  1.41475215 6.01857247] Zr, [0.847...          Zr4O8   \\n\",\n       \"13453  [[1.32868312 1.2133427  0.17553451] Zr, [1.328...          Zr4O8   \\n\",\n       \"13454  [[1.29333833 1.18106613 0.17086506] Zr, [1.293...          Zr4O8   \\n\",\n       \"13455  [[0.         5.9796572  2.03446975] Zr, [2.051...          Zr4O8   \\n\",\n       \"13456  [[1.31199976 1.1981076  0.17333045] Zr, [1.311...          Zr4O8   \\n\",\n       \"\\n\",\n       \"      space_group space_group_num  dissimilarity  formation_energy_per_atom  \\\\\\n\",\n       \"13345        Pnma              62       0.992863                  -3.327849   \\n\",\n       \"13346    P2_12_12              18       0.636794                  -3.301080   \\n\",\n       \"13347          P1               1       2.121633                  -0.954553   \\n\",\n       \"13348    P2_12_12              18       0.636794                  -3.326914   \\n\",\n       \"13349        Pnma              62       0.992863                  -3.305021   \\n\",\n       \"...           ...             ...            ...                        ...   \\n\",\n       \"13452        Pnma              62       0.992863                  -3.320972   \\n\",\n       \"13453      Pca2_1              29       0.494103                  -3.373758   \\n\",\n       \"13454      Pca2_1              29       0.494103                  -3.199693   \\n\",\n       \"13455        C2/c              15       2.092321                  -1.922489   \\n\",\n       \"13456      Pca2_1              29       0.494103                  -3.309452   \\n\",\n       \"\\n\",\n       \"       final_energy_per_atom  \\n\",\n       \"13345              -9.475720  \\n\",\n       \"13346              -9.448950  \\n\",\n       \"13347              -7.102423  \\n\",\n       \"13348              -9.474785  \\n\",\n       \"13349              -9.452892  \\n\",\n       \"...                      ...  \\n\",\n       \"13452              -9.468843  \\n\",\n       \"13453              -9.521629  \\n\",\n       \"13454              -9.347563  \\n\",\n       \"13455              -8.070360  \\n\",\n       \"13456              -9.457323  \\n\",\n       \"\\n\",\n       \"[112 rows x 7 columns]\"\n      ]\n     },\n     \"execution_count\": 20,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"single_point_results = pd.read_pickle('generated/single_point_results.pd.xz')\\n\",\n    \"single_point_results\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 5. Train the surrogate model\\n\",\n    \"\\n\",\n    \"As described in our paper, a transferred energy prediction model was used to perform exhaustive virtual screening. The global energy prediction model, the CGCNN model was trained on 126,210 stable and unstable crystal structures, with their formation energies retrieved from the Materials Project; the 90 benchmark crystals were excluded from the training set.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 21,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [],\n   \"source\": [\n    \"from shutil import copyfile\\n\",\n    \"from pathlib import Path\\n\",\n    \"from itertools import product\\n\",\n    \"from collections import OrderedDict\\n\",\n    \"from datetime import datetime, timedelta\\n\",\n    \"from platform import version as sys_ver\\n\",\n    \"from sys import version as py_ver\\n\",\n    \"\\n\",\n    \"import torch\\n\",\n    \"import warnings\\n\",\n    \"from tqdm import tqdm\\n\",\n    \"\\n\",\n    \"import matplotlib.cm as mplcm\\n\",\n    \"import matplotlib.colors as colors\\n\",\n    \"\\n\",\n    \"from torch.utils.data import DataLoader\\n\",\n    \"from xenonpy.descriptor import Compositions, CrystalGraphFeaturizer\\n\",\n    \"from xenonpy.datatools import Splitter\\n\",\n    \"from xenonpy.utils.math import Product\\n\",\n    \"\\n\",\n    \"from xenonpy.model.utils import regression_metrics\\n\",\n    \"from xenonpy.model.training import Trainer, SGD, MSELoss, Adam, ReduceLROnPlateau, ExponentialLR, ClipNorm, Checker, ClipValue\\n\",\n    \"from xenonpy.model.training.extension import Validator, TensorConverter, Persist\\n\",\n    \"from xenonpy.model.training.dataset import ArrayDataset, CrystalGraphDataset\\n\",\n    \"from xenonpy.model import CrystalGraphConvNet\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 22,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.model.utils.metrics import regression_metrics\\n\",\n    \"\\n\",\n    \"def cv_plot(pred, true, pred_fit=None, true_fit=None, *, unit='', lim=None, title='', ax=None, style='seaborn-notebook', **kwargs):\\n\",\n    \"    pred, true = pred.flatten(), true.flatten()\\n\",\n    \"    scores = regression_metrics(true, pred)\\n\",\n    \"\\n\",\n    \"    with matplotlib.style.context(style):\\n\",\n    \"        if ax is None:\\n\",\n    \"            _, ax = plt.subplots(figsize=(8, 8), dpi=100)\\n\",\n    \"\\n\",\n    \"        if pred_fit is not None and true_fit is not None:\\n\",\n    \"            ax.scatter(pred_fit, true_fit, alpha=0.5, s=5, label='Train', **kwargs)\\n\",\n    \"        ax.scatter(pred, true, alpha=0.6, s=8, label='Test', **kwargs)\\n\",\n    \"        if lim is not None:\\n\",\n    \"            ax.set_xlim(*lim)\\n\",\n    \"            ax.set_ylim(*lim)\\n\",\n    \"        else:\\n\",\n    \"            lim = ax.get_xlim()\\n\",\n    \"            ax.set_xlim(*lim)\\n\",\n    \"            ax.set_ylim(*lim)\\n\",\n    \"\\n\",\n    \"        ax.plot(lim, lim, ls=\\\"--\\\", c=\\\"0.3\\\", alpha=0.7, lw=1)\\n\",\n    \"        if unit != '':\\n\",\n    \"            unit = f' ({unit})'\\n\",\n    \"        ax.set_xlabel(f'Prediction{unit}', fontsize='x-large')\\n\",\n    \"        ax.set_ylabel(f'Observation{unit}', fontsize='x-large')\\n\",\n    \"        legend = ax.legend(markerscale=2, fontsize='larger', loc=0)\\n\",\n    \"        for lh in legend.legendHandles:\\n\",\n    \"            lh.set_alpha(1.0)\\n\",\n    \"        ax.grid(color='gray', linestyle='--', linewidth=0.5, alpha=0.5)\\n\",\n    \"        ax.set_title(title, fontsize='x-large')\\n\",\n    \"        shift = (lim[1] - lim[0]) / 50\\n\",\n    \"        ax.text(lim[1] - shift, lim[0] + shift,\\n\",\n    \"                 'R2: %.5f\\\\nMAE: %.5f\\\\nRMSE: %.5f\\\\nPearsonR: %.5f\\\\nSpearmanR: %.5f' % (scores['r2'],scores['mae'], scores['rmse'], scores['pearsonr'], scores['spearmanr']),\\n\",\n    \"                 horizontalalignment='right', verticalalignment='bottom', fontsize='larger',  bbox=dict(boxstyle='round', facecolor='wheat', alpha=0.5))\\n\",\n    \"        ax.tick_params(axis='both', which='major', labelsize='larger')\\n\",\n    \"        #     plt.show()\\n\",\n    \"        return ax\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### Prepare CGCNN descriptors\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 23,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [],\n   \"source\": [\n    \"cg_featurizer = CrystalGraphFeaturizer(atom_feature='origin', radius=8, n_jobs=1)\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"#### calculate cgcnn feartures\\n\",\n    \"cg_features = cg_featurizer.transform(single_point_results.structure)\\n\",\n    \"\\n\",\n    \"## prepare training\\n\",\n    \"data_size = cg_features.shape[0]\\n\",\n    \"if data_size <= 10:\\n\",\n    \"    splitter = Splitter(data_size, test_size=2, random_state=100)\\n\",\n    \"else:\\n\",\n    \"    splitter = Splitter(data_size, test_size=0.1, random_state=100)\\n\",\n    \"x_train, x_test, y_train, y_test = splitter.split(cg_features, single_point_results.formation_energy_per_atom.to_frame())\\n\",\n    \"train_dataloader = DataLoader(CrystalGraphDataset(x_train, y_train), shuffle=False,\\n\",\n    \"                              batch_size=256, collate_fn=CrystalGraphDataset.collate_fn)\\n\",\n    \"val_dataloader = DataLoader(CrystalGraphDataset(x_test, y_test),\\n\",\n    \"                              batch_size=2000, collate_fn=CrystalGraphDataset.collate_fn)\\n\",\n    \"\\n\",\n    \"## set training parameters\\n\",\n    \"warnings.filterwarnings('ignore')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"source\": [\n    \"##### Fine-tuning\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 24,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [],\n   \"source\": [\n    \"# global model\\n\",\n    \"model_path = 'cgcnn_formation_energy'\\n\",\n    \"\\n\",\n    \"# fine-tuning parameter\\n\",\n    \"params = [0.01, 0.008, 0.006, 0.004, 0.002]\\n\",\n    \"\\n\",\n    \"# max epochs\\n\",\n    \"epochs = 400\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 25,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"====== lr: 0.006; clip: 0.006 ===========\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"49632002492848ca88c5fa6547aa7340\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/400 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 21 iterations, finish training at iteration 179\\n\",\n      \"====== lr: 0.006; clip: 0.004 ===========\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"4e1353376b4f47478d0230fd3304c05c\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/400 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 21 iterations, finish training at iteration 245\\n\",\n      \"====== lr: 0.004; clip: 0.006 ===========\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"060809897a7a4ae08c1a8c9ba1583fd9\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/400 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 21 iterations, finish training at iteration 174\\n\",\n      \"====== lr: 0.004; clip: 0.004 ===========\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"application/vnd.jupyter.widget-view+json\": {\n       \"model_id\": \"443c0b845c6e4d1e85f19fe2cf60d011\",\n       \"version_major\": 2,\n       \"version_minor\": 0\n      },\n      \"text/plain\": [\n       \"Training:   0%|          | 0/400 [00:00<?, ?it/s]\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] since the last 21 iterations, finish training at iteration 146\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"'generated/transferred_model/ft_training_best_mae.png'\"\n      ]\n     },\n     \"execution_count\": 25,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 1000x700 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 1000x700 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 1000x700 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 1000x700 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"summary = []\\n\",\n    \"\\n\",\n    \"## model training with grid search\\n\",\n    \"for lr, clip in product(params, params):\\n\",\n    \"\\n\",\n    \"    checker = Checker(model_path)\\n\",\n    \"    trainer = Trainer.from_checker(\\n\",\n    \"        checker=checker,\\n\",\n    \"        cuda=True,\\n\",\n    \"        optimizer=Adam(lr=lr),\\n\",\n    \"        loss_func=MSELoss(),\\n\",\n    \"        clip_grad=ClipValue(clip)\\n\",\n    \"    ).extend(\\n\",\n    \"        TensorConverter(empty_cache=True),\\n\",\n    \"        Validator(metrics_func=regression_metrics, early_stopping=20, trace_order=1, pearsonr=1.0, mse=0.0, r2=0.0, mae=0.0),\\n\",\n    \"    )\\n\",\n    \"\\n\",\n    \"    persist = Persist(\\n\",\n    \"        increment=True,\\n\",\n    \"        path=f'generated/transferred_model/model',\\n\",\n    \"        model_class=CrystalGraphConvNet,\\n\",\n    \"        model_params=checker.model_params,\\n\",\n    \"        author='Chang Liu',\\n\",\n    \"        email='liu.chang@ism.ac.jp',\\n\",\n    \"        dataset_detail='vasp-6.1.2'\\n\",\n    \"    )\\n\",\n    \"    trainer.extend(persist).reset(to='mae')\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"    print(f\\\"====== lr: {lr}; clip: {clip} ===========\\\")\\n\",\n    \"    trainer.fit(training_dataset=train_dataloader, validation_dataset=val_dataloader, epochs=epochs, checkpoint=True)\\n\",\n    \"\\n\",\n    \"    persist(splitter=splitter, data_indices=single_point_results.index.tolist())\\n\",\n    \"    training_info = trainer.training_info\\n\",\n    \"\\n\",\n    \"    # draw training steps\\n\",\n    \"    f, ax = plt.subplots(figsize=(10, 7),dpi=100)\\n\",\n    \"    ax = trainer.training_info.plot(y=['train_mse_loss', 'val_mse'], ax=ax)\\n\",\n    \"    _ = ax.grid(axis='y', linestyle='--')\\n\",\n    \"    f.savefig(f'{persist.path}/ft_training_steps.png', bbox_inches='tight', dpi=300)\\n\",\n    \"\\n\",\n    \"    # draw OvP\\n\",\n    \"    pred, true = trainer.predict(dataset=val_dataloader, checkpoint='mae')\\n\",\n    \"    pred_fit, true_fit = trainer.predict(dataset=train_dataloader, checkpoint='mae')\\n\",\n    \"\\n\",\n    \"    _ = cv_plot(pred, true, pred_fit, true_fit)\\n\",\n    \"    plt.savefig(f'{persist.path}/ft_training_plot.png', bbox_inches='tight', dpi=300)\\n\",\n    \"    plt.cla()\\n\",\n    \"    plt.clf()\\n\",\n    \"    plt.close()\\n\",\n    \"\\n\",\n    \"    summary.append(dict(\\n\",\n    \"        path=persist.path,\\n\",\n    \"        data_size=data_size,\\n\",\n    \"        lr=lr,\\n\",\n    \"        clip=clip,\\n\",\n    \"        mae=training_info['val_mae'].min(),\\n\",\n    \"        mse=training_info['val_mse'].min(),\\n\",\n    \"        r2=training_info['val_r2'].max(),\\n\",\n    \"        corr=training_info['val_pearsonr'].max(),\\n\",\n    \"    ))\\n\",\n    \"    pd.DataFrame(summary).to_csv('generated/transferred_model/training_summary.pd.csv')\\n\",\n    \"\\n\",\n    \"summary = pd.DataFrame(summary)\\n\",\n    \"summary.to_pickle('generated/transferred_model/training_summary.pd.xz')\\n\",\n    \"\\n\",\n    \"best_mae = summary.sort_values('mae').iloc[0].path\\n\",\n    \"copyfile(f'{best_mae}/ft_training_plot.png', 'generated/transferred_model/ft_training_best_mae.png')\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### Prediction and virtual screening\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 26,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"N_GROUP = 20\\n\",\n    \"N_OPT = 5\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 27,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(89, 6)\"\n      ]\n     },\n     \"execution_count\": 27,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"best_mae_path = pd.read_pickle('generated/transferred_model/training_summary.pd.xz').sort_values('mae').iloc[0].path\\n\",\n    \"trainer = Trainer.from_checker(checker=best_mae_path, cuda=True).extend(TensorConverter(empty_cache=True))\\n\",\n    \"\\n\",\n    \"### prediction\\n\",\n    \"screen_cgcnn_features = pd.read_pickle('generated/structure_candidate_cgcnn_features.pd')\\n\",\n    \"val_dataloader = DataLoader(CrystalGraphDataset(screen_cgcnn_features, np.zeros(screen_cgcnn_features.shape[0]).reshape(-1, 1)),\\n\",\n    \"                              batch_size=500, collate_fn=CrystalGraphDataset.collate_fn)\\n\",\n    \"\\n\",\n    \"pred, _ = trainer.predict(dataset=val_dataloader, checkpoint='mae')\\n\",\n    \"\\n\",\n    \"### load screen structures\\n\",\n    \"screen_structures = pd.read_pickle('generated/structure_candidate.pd.xz')\\n\",\n    \"screen_structures = screen_structures.assign(prediction=pred)\\n\",\n    \"screen_structures.drop(columns='structure').to_pickle('generated/structure_candidate_with_prediction.pd.xz')\\n\",\n    \"\\n\",\n    \"screen_structures = screen_structures[screen_structures.prediction < 0]\\n\",\n    \"groups = screen_structures.groupby('structure_group')[['dissimilarity', 'prediction']].min().sort_values('prediction').index[:N_GROUP]\\n\",\n    \"opt_candidate = screen_structures[screen_structures.structure_group.isin(groups)].groupby('structure_group').apply(lambda x: x.sort_values('prediction').head(N_OPT)).droplevel('structure_group')\\n\",\n    \"opt_candidate.to_pickle('generated/opt_candidate.pd.xz')\\n\",\n    \"\\n\",\n    \"opt_candidate.shape\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 6. Selection of the final candidates\\n\",\n    \"\\n\",\n    \"The DFT structural optimization is performed on the candidate structures saved in `opt_candidate.pd.xz` to predict the crystal structure of $\\\\mathrm{Zr}\\\\mathrm{O}_2$. The structure optimization should be performed by the user.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 28,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(37, 7)\"\n      ]\n     },\n     \"execution_count\": 28,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>formula_pretty</th>\\n\",\n       \"      <th>formation_energy_per_atom</th>\\n\",\n       \"      <th>final_energy_per_atom</th>\\n\",\n       \"      <th>structure_group</th>\\n\",\n       \"      <th>target_formula</th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"      <th>converged</th>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1059</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.901437</td>\\n\",\n       \"      <td>-9.438405</td>\\n\",\n       \"      <td>8</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.61332090e+00 2.61332090e+00 3.20039507e-16...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>967</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.901465</td>\\n\",\n       \"      <td>-9.438433</td>\\n\",\n       \"      <td>8</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.61330891e+00 2.61330891e+00 3.20038039e-16...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>65</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.982247</td>\\n\",\n       \"      <td>-9.519214</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[3.66157261 1.3074229  1.49870806] Zr, [1.370...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"     formula_pretty  formation_energy_per_atom  final_energy_per_atom  \\\\\\n\",\n       \"id                                                                      \\n\",\n       \"1059           ZrO2                  -7.901437              -9.438405   \\n\",\n       \"967            ZrO2                  -7.901465              -9.438433   \\n\",\n       \"65             ZrO2                  -7.982247              -9.519214   \\n\",\n       \"\\n\",\n       \"      structure_group target_formula  \\\\\\n\",\n       \"id                                     \\n\",\n       \"1059                8          Zr4O8   \\n\",\n       \"967                 8          Zr4O8   \\n\",\n       \"65                  2          Zr4O8   \\n\",\n       \"\\n\",\n       \"                                              structure  converged  \\n\",\n       \"id                                                                  \\n\",\n       \"1059  [[2.61332090e+00 2.61332090e+00 3.20039507e-16...       True  \\n\",\n       \"967   [[2.61330891e+00 2.61330891e+00 3.20038039e-16...       True  \\n\",\n       \"65    [[3.66157261 1.3074229  1.49870806] Zr, [1.370...       True  \"\n      ]\n     },\n     \"execution_count\": 28,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"opt_candidate_result = pd.read_pickle('generated/opt_candidate_result.pd.xz')\\n\",\n    \"\\n\",\n    \"opt_candidate_result.shape\\n\",\n    \"opt_candidate_result.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"The top 5 structures with the lowest formation energy for each template are selected as the final candidates.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 29,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>formula_pretty</th>\\n\",\n       \"      <th>formation_energy_per_atom</th>\\n\",\n       \"      <th>final_energy_per_atom</th>\\n\",\n       \"      <th>structure_group</th>\\n\",\n       \"      <th>target_formula</th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"      <th>converged</th>\\n\",\n       \"      <th>dissimilarity</th>\\n\",\n       \"      <th>space_group_num</th>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>5</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-8.056902</td>\\n\",\n       \"      <td>-9.593870</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.85272939 3.70408311 4.44153828] Zr, [0.228...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>0.100232</td>\\n\",\n       \"      <td>14</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>7</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-8.056900</td>\\n\",\n       \"      <td>-9.593868</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.85291178 3.70391033 4.44185941] Zr, [0.227...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>0.101241</td>\\n\",\n       \"      <td>14</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-8.056898</td>\\n\",\n       \"      <td>-9.593866</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.85307367 3.70349685 4.4420747 ] Zr, [0.227...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>0.100766</td>\\n\",\n       \"      <td>14</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-8.056889</td>\\n\",\n       \"      <td>-9.593857</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.85220447 3.70270231 4.4411749 ] Zr, [0.227...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>0.100772</td>\\n\",\n       \"      <td>14</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>12</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-8.056889</td>\\n\",\n       \"      <td>-9.593857</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.85218545 3.70275872 4.44111552] Zr, [0.227...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>0.100780</td>\\n\",\n       \"      <td>14</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>33</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-8.032976</td>\\n\",\n       \"      <td>-9.569944</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[1.35623771 1.22996757 0.1635448 ] Zr, [1.356...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>0.513832</td>\\n\",\n       \"      <td>29</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>29</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-8.032967</td>\\n\",\n       \"      <td>-9.569934</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[1.35621643 1.23036135 0.16409659] Zr, [1.356...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>0.512709</td>\\n\",\n       \"      <td>29</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>30</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-8.032957</td>\\n\",\n       \"      <td>-9.569925</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[1.35670995 1.23153948 0.163581  ] Zr, [1.356...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>0.513512</td>\\n\",\n       \"      <td>29</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>25</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-8.032949</td>\\n\",\n       \"      <td>-9.569917</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[1.35719055 1.23255449 0.16429115] Zr, [1.357...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>0.512753</td>\\n\",\n       \"      <td>29</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>62</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-8.032940</td>\\n\",\n       \"      <td>-9.569907</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[1.35715966 1.23284504 0.16397933] Zr, [1.357...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>0.513173</td>\\n\",\n       \"      <td>29</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1161</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-8.009396</td>\\n\",\n       \"      <td>-9.546364</td>\\n\",\n       \"      <td>14</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.58180336e+00 2.58182322e+00 5.93759188e-04...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>2.034036</td>\\n\",\n       \"      <td>125</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1187</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-8.009396</td>\\n\",\n       \"      <td>-9.546363</td>\\n\",\n       \"      <td>14</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.58224575e+00 2.58191568e+00 8.85481727e-04...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>2.033384</td>\\n\",\n       \"      <td>125</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1181</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-8.009392</td>\\n\",\n       \"      <td>-9.546360</td>\\n\",\n       \"      <td>14</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.58296388e+00 2.58196920e+00 1.34390932e-03...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>2.030034</td>\\n\",\n       \"      <td>125</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1180</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-8.009391</td>\\n\",\n       \"      <td>-9.546359</td>\\n\",\n       \"      <td>14</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.58218436e+00 2.58184370e+00 8.82030665e-04...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>2.032999</td>\\n\",\n       \"      <td>125</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1168</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-8.009374</td>\\n\",\n       \"      <td>-9.546341</td>\\n\",\n       \"      <td>14</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.58250808e+00 2.58208206e+00 9.65028267e-04...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>2.032951</td>\\n\",\n       \"      <td>125</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>927</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.986474</td>\\n\",\n       \"      <td>-9.523441</td>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[3.84233583 0.90468546 2.71490722] Zr, [1.282...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>2.400476</td>\\n\",\n       \"      <td>225</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>926</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.986471</td>\\n\",\n       \"      <td>-9.523438</td>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[3.8425556  0.90467693 2.71430793] Zr, [1.282...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>2.400426</td>\\n\",\n       \"      <td>225</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>78</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.982412</td>\\n\",\n       \"      <td>-9.519380</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[3.65969157 1.2997801  1.49777842] Zr, [1.371...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.507847</td>\\n\",\n       \"      <td>18</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>63</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.982373</td>\\n\",\n       \"      <td>-9.519341</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[3.66253792 1.29960545 1.49839971] Zr, [1.370...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.491382</td>\\n\",\n       \"      <td>18</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>69</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.982335</td>\\n\",\n       \"      <td>-9.519303</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[3.66283827 1.30278042 1.49853554] Zr, [1.370...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.464264</td>\\n\",\n       \"      <td>18</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>65</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.982247</td>\\n\",\n       \"      <td>-9.519214</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[3.66157261 1.3074229  1.49870806] Zr, [1.370...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.423580</td>\\n\",\n       \"      <td>18</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>77</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.982104</td>\\n\",\n       \"      <td>-9.519071</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[3.66078471 1.3143346  1.49821437] Zr, [1.369...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.367775</td>\\n\",\n       \"      <td>18</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>276</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.942265</td>\\n\",\n       \"      <td>-9.479232</td>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[0.84375476 1.39417501 5.84686055] Zr, [0.843...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.109196</td>\\n\",\n       \"      <td>62</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>577</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.942261</td>\\n\",\n       \"      <td>-9.479229</td>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[0.84384072 1.3939795  5.84649992] Zr, [0.843...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.111659</td>\\n\",\n       \"      <td>62</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>482</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.942258</td>\\n\",\n       \"      <td>-9.479225</td>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[0.84388549 1.39395452 5.84725204] Zr, [0.843...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.109338</td>\\n\",\n       \"      <td>62</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>226</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.942257</td>\\n\",\n       \"      <td>-9.479225</td>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[0.84379916 1.3940506  5.8460795 ] Zr, [0.843...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.111705</td>\\n\",\n       \"      <td>62</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>180</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.942256</td>\\n\",\n       \"      <td>-9.479224</td>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[0.84366444 1.39396418 5.84895046] Zr, [0.843...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.107523</td>\\n\",\n       \"      <td>62</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1896</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.901468</td>\\n\",\n       \"      <td>-9.438435</td>\\n\",\n       \"      <td>41</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.61389089e+00 0.00000000e+00 1.60054656e-16...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.950326</td>\\n\",\n       \"      <td>205</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>967</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.901465</td>\\n\",\n       \"      <td>-9.438433</td>\\n\",\n       \"      <td>8</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.61330891e+00 2.61330891e+00 3.20038039e-16...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.950561</td>\\n\",\n       \"      <td>205</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1028</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.901464</td>\\n\",\n       \"      <td>-9.438432</td>\\n\",\n       \"      <td>8</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.61336324e+00 2.61336324e+00 3.20044693e-16...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.950136</td>\\n\",\n       \"      <td>205</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1140</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.901459</td>\\n\",\n       \"      <td>-9.438427</td>\\n\",\n       \"      <td>8</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.61376307e+00 2.61376307e+00 3.20093658e-16...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.948152</td>\\n\",\n       \"      <td>205</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1373</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.901458</td>\\n\",\n       \"      <td>-9.438426</td>\\n\",\n       \"      <td>41</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.61383554e+00 0.00000000e+00 1.60051266e-16...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.952149</td>\\n\",\n       \"      <td>205</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1219</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.901455</td>\\n\",\n       \"      <td>-9.438423</td>\\n\",\n       \"      <td>41</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.61403461e+00 0.00000000e+00 1.60063456e-16...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.952248</td>\\n\",\n       \"      <td>205</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1769</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.901446</td>\\n\",\n       \"      <td>-9.438413</td>\\n\",\n       \"      <td>41</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.61301739e+00 0.00000000e+00 1.60001169e-16...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.954058</td>\\n\",\n       \"      <td>205</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1950</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.901445</td>\\n\",\n       \"      <td>-9.438413</td>\\n\",\n       \"      <td>41</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.61395205e+00 0.00000000e+00 1.60058401e-16...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.954346</td>\\n\",\n       \"      <td>205</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1059</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.901437</td>\\n\",\n       \"      <td>-9.438405</td>\\n\",\n       \"      <td>8</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.61332090e+00 2.61332090e+00 3.20039507e-16...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.943777</td>\\n\",\n       \"      <td>205</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>996</th>\\n\",\n       \"      <td>ZrO2</td>\\n\",\n       \"      <td>-7.901436</td>\\n\",\n       \"      <td>-9.438404</td>\\n\",\n       \"      <td>8</td>\\n\",\n       \"      <td>Zr4O8</td>\\n\",\n       \"      <td>[[2.61305292e+00 2.61305292e+00 3.20006689e-16...</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>1.944469</td>\\n\",\n       \"      <td>205</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"     formula_pretty  formation_energy_per_atom  final_energy_per_atom  \\\\\\n\",\n       \"id                                                                      \\n\",\n       \"5              ZrO2                  -8.056902              -9.593870   \\n\",\n       \"7              ZrO2                  -8.056900              -9.593868   \\n\",\n       \"0              ZrO2                  -8.056898              -9.593866   \\n\",\n       \"2              ZrO2                  -8.056889              -9.593857   \\n\",\n       \"12             ZrO2                  -8.056889              -9.593857   \\n\",\n       \"33             ZrO2                  -8.032976              -9.569944   \\n\",\n       \"29             ZrO2                  -8.032967              -9.569934   \\n\",\n       \"30             ZrO2                  -8.032957              -9.569925   \\n\",\n       \"25             ZrO2                  -8.032949              -9.569917   \\n\",\n       \"62             ZrO2                  -8.032940              -9.569907   \\n\",\n       \"1161           ZrO2                  -8.009396              -9.546364   \\n\",\n       \"1187           ZrO2                  -8.009396              -9.546363   \\n\",\n       \"1181           ZrO2                  -8.009392              -9.546360   \\n\",\n       \"1180           ZrO2                  -8.009391              -9.546359   \\n\",\n       \"1168           ZrO2                  -8.009374              -9.546341   \\n\",\n       \"927            ZrO2                  -7.986474              -9.523441   \\n\",\n       \"926            ZrO2                  -7.986471              -9.523438   \\n\",\n       \"78             ZrO2                  -7.982412              -9.519380   \\n\",\n       \"63             ZrO2                  -7.982373              -9.519341   \\n\",\n       \"69             ZrO2                  -7.982335              -9.519303   \\n\",\n       \"65             ZrO2                  -7.982247              -9.519214   \\n\",\n       \"77             ZrO2                  -7.982104              -9.519071   \\n\",\n       \"276            ZrO2                  -7.942265              -9.479232   \\n\",\n       \"577            ZrO2                  -7.942261              -9.479229   \\n\",\n       \"482            ZrO2                  -7.942258              -9.479225   \\n\",\n       \"226            ZrO2                  -7.942257              -9.479225   \\n\",\n       \"180            ZrO2                  -7.942256              -9.479224   \\n\",\n       \"1896           ZrO2                  -7.901468              -9.438435   \\n\",\n       \"967            ZrO2                  -7.901465              -9.438433   \\n\",\n       \"1028           ZrO2                  -7.901464              -9.438432   \\n\",\n       \"1140           ZrO2                  -7.901459              -9.438427   \\n\",\n       \"1373           ZrO2                  -7.901458              -9.438426   \\n\",\n       \"1219           ZrO2                  -7.901455              -9.438423   \\n\",\n       \"1769           ZrO2                  -7.901446              -9.438413   \\n\",\n       \"1950           ZrO2                  -7.901445              -9.438413   \\n\",\n       \"1059           ZrO2                  -7.901437              -9.438405   \\n\",\n       \"996            ZrO2                  -7.901436              -9.438404   \\n\",\n       \"\\n\",\n       \"      structure_group target_formula  \\\\\\n\",\n       \"id                                     \\n\",\n       \"5                   0          Zr4O8   \\n\",\n       \"7                   0          Zr4O8   \\n\",\n       \"0                   0          Zr4O8   \\n\",\n       \"2                   0          Zr4O8   \\n\",\n       \"12                  0          Zr4O8   \\n\",\n       \"33                  1          Zr4O8   \\n\",\n       \"29                  1          Zr4O8   \\n\",\n       \"30                  1          Zr4O8   \\n\",\n       \"25                  1          Zr4O8   \\n\",\n       \"62                  1          Zr4O8   \\n\",\n       \"1161               14          Zr4O8   \\n\",\n       \"1187               14          Zr4O8   \\n\",\n       \"1181               14          Zr4O8   \\n\",\n       \"1180               14          Zr4O8   \\n\",\n       \"1168               14          Zr4O8   \\n\",\n       \"927                 5          Zr4O8   \\n\",\n       \"926                 5          Zr4O8   \\n\",\n       \"78                  2          Zr4O8   \\n\",\n       \"63                  2          Zr4O8   \\n\",\n       \"69                  2          Zr4O8   \\n\",\n       \"65                  2          Zr4O8   \\n\",\n       \"77                  2          Zr4O8   \\n\",\n       \"276                 3          Zr4O8   \\n\",\n       \"577                 3          Zr4O8   \\n\",\n       \"482                 3          Zr4O8   \\n\",\n       \"226                 3          Zr4O8   \\n\",\n       \"180                 3          Zr4O8   \\n\",\n       \"1896               41          Zr4O8   \\n\",\n       \"967                 8          Zr4O8   \\n\",\n       \"1028                8          Zr4O8   \\n\",\n       \"1140                8          Zr4O8   \\n\",\n       \"1373               41          Zr4O8   \\n\",\n       \"1219               41          Zr4O8   \\n\",\n       \"1769               41          Zr4O8   \\n\",\n       \"1950               41          Zr4O8   \\n\",\n       \"1059                8          Zr4O8   \\n\",\n       \"996                 8          Zr4O8   \\n\",\n       \"\\n\",\n       \"                                              structure  converged  \\\\\\n\",\n       \"id                                                                   \\n\",\n       \"5     [[2.85272939 3.70408311 4.44153828] Zr, [0.228...       True   \\n\",\n       \"7     [[2.85291178 3.70391033 4.44185941] Zr, [0.227...       True   \\n\",\n       \"0     [[2.85307367 3.70349685 4.4420747 ] Zr, [0.227...       True   \\n\",\n       \"2     [[2.85220447 3.70270231 4.4411749 ] Zr, [0.227...       True   \\n\",\n       \"12    [[2.85218545 3.70275872 4.44111552] Zr, [0.227...       True   \\n\",\n       \"33    [[1.35623771 1.22996757 0.1635448 ] Zr, [1.356...       True   \\n\",\n       \"29    [[1.35621643 1.23036135 0.16409659] Zr, [1.356...       True   \\n\",\n       \"30    [[1.35670995 1.23153948 0.163581  ] Zr, [1.356...       True   \\n\",\n       \"25    [[1.35719055 1.23255449 0.16429115] Zr, [1.357...       True   \\n\",\n       \"62    [[1.35715966 1.23284504 0.16397933] Zr, [1.357...       True   \\n\",\n       \"1161  [[2.58180336e+00 2.58182322e+00 5.93759188e-04...       True   \\n\",\n       \"1187  [[2.58224575e+00 2.58191568e+00 8.85481727e-04...       True   \\n\",\n       \"1181  [[2.58296388e+00 2.58196920e+00 1.34390932e-03...       True   \\n\",\n       \"1180  [[2.58218436e+00 2.58184370e+00 8.82030665e-04...       True   \\n\",\n       \"1168  [[2.58250808e+00 2.58208206e+00 9.65028267e-04...       True   \\n\",\n       \"927   [[3.84233583 0.90468546 2.71490722] Zr, [1.282...       True   \\n\",\n       \"926   [[3.8425556  0.90467693 2.71430793] Zr, [1.282...       True   \\n\",\n       \"78    [[3.65969157 1.2997801  1.49777842] Zr, [1.371...       True   \\n\",\n       \"63    [[3.66253792 1.29960545 1.49839971] Zr, [1.370...       True   \\n\",\n       \"69    [[3.66283827 1.30278042 1.49853554] Zr, [1.370...       True   \\n\",\n       \"65    [[3.66157261 1.3074229  1.49870806] Zr, [1.370...       True   \\n\",\n       \"77    [[3.66078471 1.3143346  1.49821437] Zr, [1.369...       True   \\n\",\n       \"276   [[0.84375476 1.39417501 5.84686055] Zr, [0.843...       True   \\n\",\n       \"577   [[0.84384072 1.3939795  5.84649992] Zr, [0.843...       True   \\n\",\n       \"482   [[0.84388549 1.39395452 5.84725204] Zr, [0.843...       True   \\n\",\n       \"226   [[0.84379916 1.3940506  5.8460795 ] Zr, [0.843...       True   \\n\",\n       \"180   [[0.84366444 1.39396418 5.84895046] Zr, [0.843...       True   \\n\",\n       \"1896  [[2.61389089e+00 0.00000000e+00 1.60054656e-16...       True   \\n\",\n       \"967   [[2.61330891e+00 2.61330891e+00 3.20038039e-16...       True   \\n\",\n       \"1028  [[2.61336324e+00 2.61336324e+00 3.20044693e-16...       True   \\n\",\n       \"1140  [[2.61376307e+00 2.61376307e+00 3.20093658e-16...       True   \\n\",\n       \"1373  [[2.61383554e+00 0.00000000e+00 1.60051266e-16...       True   \\n\",\n       \"1219  [[2.61403461e+00 0.00000000e+00 1.60063456e-16...       True   \\n\",\n       \"1769  [[2.61301739e+00 0.00000000e+00 1.60001169e-16...       True   \\n\",\n       \"1950  [[2.61395205e+00 0.00000000e+00 1.60058401e-16...       True   \\n\",\n       \"1059  [[2.61332090e+00 2.61332090e+00 3.20039507e-16...       True   \\n\",\n       \"996   [[2.61305292e+00 2.61305292e+00 3.20006689e-16...       True   \\n\",\n       \"\\n\",\n       \"      dissimilarity  space_group_num  \\n\",\n       \"id                                    \\n\",\n       \"5          0.100232               14  \\n\",\n       \"7          0.101241               14  \\n\",\n       \"0          0.100766               14  \\n\",\n       \"2          0.100772               14  \\n\",\n       \"12         0.100780               14  \\n\",\n       \"33         0.513832               29  \\n\",\n       \"29         0.512709               29  \\n\",\n       \"30         0.513512               29  \\n\",\n       \"25         0.512753               29  \\n\",\n       \"62         0.513173               29  \\n\",\n       \"1161       2.034036              125  \\n\",\n       \"1187       2.033384              125  \\n\",\n       \"1181       2.030034              125  \\n\",\n       \"1180       2.032999              125  \\n\",\n       \"1168       2.032951              125  \\n\",\n       \"927        2.400476              225  \\n\",\n       \"926        2.400426              225  \\n\",\n       \"78         1.507847               18  \\n\",\n       \"63         1.491382               18  \\n\",\n       \"69         1.464264               18  \\n\",\n       \"65         1.423580               18  \\n\",\n       \"77         1.367775               18  \\n\",\n       \"276        1.109196               62  \\n\",\n       \"577        1.111659               62  \\n\",\n       \"482        1.109338               62  \\n\",\n       \"226        1.111705               62  \\n\",\n       \"180        1.107523               62  \\n\",\n       \"1896       1.950326              205  \\n\",\n       \"967        1.950561              205  \\n\",\n       \"1028       1.950136              205  \\n\",\n       \"1140       1.948152              205  \\n\",\n       \"1373       1.952149              205  \\n\",\n       \"1219       1.952248              205  \\n\",\n       \"1769       1.954058              205  \\n\",\n       \"1950       1.954346              205  \\n\",\n       \"1059       1.943777              205  \\n\",\n       \"996        1.944469              205  \"\n      ]\n     },\n     \"execution_count\": 29,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"final_result = opt_candidate_result.sort_values('formation_energy_per_atom').groupby('structure_group').head(5)\\n\",\n    \"final_result = final_result.assign(\\n\",\n    \"    dissimilarity=calculate_similarity(true_struct, *final_result.structure, n_jobs=1),\\n\",\n    \"    space_group_num=final_result.structure.apply(lambda s: s.get_space_group_info()[1]),\\n\",\n    \")\\n\",\n    \"\\n\",\n    \"final_result.to_pickle('generated/final_proposed_candidate.pd.xz')\\n\",\n    \"final_result\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"source\": [\n    \"The proposed structures with id 5, 7, 0, 2, and 12 have the same crystalline structure as the ground truth.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3 (ipykernel)\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.8.15\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "samples/calculate_descriptors.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"## Calculate descriptors and draw heatmap\\n\",\n    \"This tutorial shows how to calculate descriptors using `xenonpy.descriptor` system. We will calculate compositional and structural descriptors using `xenonpy.descriptor.Compositions` and `xenonpy.descriptor.Structures` respectively.\\n\",\n    \"\\n\",\n    \"We need some sample data to execute these calculations. If you don't have it, please see https://github.com/yoshida-lab/XenonPy/blob/master/samples/sample_data_building.ipynb.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### useful tools\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run tools.ipynb\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### load sample data \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>band_gap</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>density</th>\\n\",\n       \"      <th>e_above_hull</th>\\n\",\n       \"      <th>efermi</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>final_energy_per_atom</th>\\n\",\n       \"      <th>formation_energy_per_atom</th>\\n\",\n       \"      <th>pretty_formula</th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"      <th>volume</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1008807</th>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"      <td>{'Rb': 1.0, 'Cu': 1.0, 'O': 1.0}</td>\\n\",\n       \"      <td>4.784634</td>\\n\",\n       \"      <td>0.996372</td>\\n\",\n       \"      <td>1.100617</td>\\n\",\n       \"      <td>[Cu, O, Rb]</td>\\n\",\n       \"      <td>-3.302762</td>\\n\",\n       \"      <td>-0.186408</td>\\n\",\n       \"      <td>RbCuO</td>\\n\",\n       \"      <td>[[-3.05935361 -3.05935361 -3.05935361] Rb, [0....</td>\\n\",\n       \"      <td>57.268924</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1009640</th>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"      <td>{'Pr': 1.0, 'N': 1.0}</td>\\n\",\n       \"      <td>8.145777</td>\\n\",\n       \"      <td>0.759393</td>\\n\",\n       \"      <td>5.213442</td>\\n\",\n       \"      <td>[N, Pr]</td>\\n\",\n       \"      <td>-7.082624</td>\\n\",\n       \"      <td>-0.714336</td>\\n\",\n       \"      <td>PrN</td>\\n\",\n       \"      <td>[[0. 0. 0.] Pr, [1.57925232 1.57925232 1.58276...</td>\\n\",\n       \"      <td>31.579717</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1016825</th>\\n\",\n       \"      <td>0.7745</td>\\n\",\n       \"      <td>{'Hf': 1.0, 'Mg': 1.0, 'O': 3.0}</td>\\n\",\n       \"      <td>6.165888</td>\\n\",\n       \"      <td>0.589550</td>\\n\",\n       \"      <td>2.424570</td>\\n\",\n       \"      <td>[Hf, Mg, O]</td>\\n\",\n       \"      <td>-7.911723</td>\\n\",\n       \"      <td>-3.060060</td>\\n\",\n       \"      <td>HfMgO3</td>\\n\",\n       \"      <td>[[2.03622802 2.03622802 2.03622802] Hf, [0. 0....</td>\\n\",\n       \"      <td>67.541269</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1017582</th>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"      <td>{'La': 1.0, 'Pt': 3.0, 'C': 1.0}</td>\\n\",\n       \"      <td>14.284261</td>\\n\",\n       \"      <td>0.523635</td>\\n\",\n       \"      <td>8.160496</td>\\n\",\n       \"      <td>[C, La, Pt]</td>\\n\",\n       \"      <td>-6.684482</td>\\n\",\n       \"      <td>-0.215712</td>\\n\",\n       \"      <td>LaPt3C</td>\\n\",\n       \"      <td>[[0. 0. 0.] La, [0.         2.20339716 2.20339...</td>\\n\",\n       \"      <td>85.579224</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1021511</th>\\n\",\n       \"      <td>1.5186</td>\\n\",\n       \"      <td>{'Cd': 1.0, 'S': 1.0}</td>\\n\",\n       \"      <td>2.582691</td>\\n\",\n       \"      <td>0.252860</td>\\n\",\n       \"      <td>-2.121180</td>\\n\",\n       \"      <td>[Cd, S]</td>\\n\",\n       \"      <td>-2.909105</td>\\n\",\n       \"      <td>-0.719529</td>\\n\",\n       \"      <td>CdS</td>\\n\",\n       \"      <td>[[2.12807605 1.22864286 2.67990375] Cd, [-2.46...</td>\\n\",\n       \"      <td>92.890725</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            band_gap                       composition    density  \\\\\\n\",\n       \"mp-1008807    0.0000  {'Rb': 1.0, 'Cu': 1.0, 'O': 1.0}   4.784634   \\n\",\n       \"mp-1009640    0.0000             {'Pr': 1.0, 'N': 1.0}   8.145777   \\n\",\n       \"mp-1016825    0.7745  {'Hf': 1.0, 'Mg': 1.0, 'O': 3.0}   6.165888   \\n\",\n       \"mp-1017582    0.0000  {'La': 1.0, 'Pt': 3.0, 'C': 1.0}  14.284261   \\n\",\n       \"mp-1021511    1.5186             {'Cd': 1.0, 'S': 1.0}   2.582691   \\n\",\n       \"\\n\",\n       \"            e_above_hull    efermi     elements  final_energy_per_atom  \\\\\\n\",\n       \"mp-1008807      0.996372  1.100617  [Cu, O, Rb]              -3.302762   \\n\",\n       \"mp-1009640      0.759393  5.213442      [N, Pr]              -7.082624   \\n\",\n       \"mp-1016825      0.589550  2.424570  [Hf, Mg, O]              -7.911723   \\n\",\n       \"mp-1017582      0.523635  8.160496  [C, La, Pt]              -6.684482   \\n\",\n       \"mp-1021511      0.252860 -2.121180      [Cd, S]              -2.909105   \\n\",\n       \"\\n\",\n       \"            formation_energy_per_atom pretty_formula  \\\\\\n\",\n       \"mp-1008807                  -0.186408          RbCuO   \\n\",\n       \"mp-1009640                  -0.714336            PrN   \\n\",\n       \"mp-1016825                  -3.060060         HfMgO3   \\n\",\n       \"mp-1017582                  -0.215712         LaPt3C   \\n\",\n       \"mp-1021511                  -0.719529            CdS   \\n\",\n       \"\\n\",\n       \"                                                    structure     volume  \\n\",\n       \"mp-1008807  [[-3.05935361 -3.05935361 -3.05935361] Rb, [0....  57.268924  \\n\",\n       \"mp-1009640  [[0. 0. 0.] Pr, [1.57925232 1.57925232 1.58276...  31.579717  \\n\",\n       \"mp-1016825  [[2.03622802 2.03622802 2.03622802] Hf, [0. 0....  67.541269  \\n\",\n       \"mp-1017582  [[0. 0. 0.] La, [0.         2.20339716 2.20339...  85.579224  \\n\",\n       \"mp-1021511  [[2.12807605 1.22864286 2.67990375] Cd, [-2.46...  92.890725  \"\n      ]\n     },\n     \"execution_count\": 2,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"<class 'pandas.core.frame.DataFrame'>\\n\",\n      \"Index: 933 entries, mp-1008807 to mvc-4727\\n\",\n      \"Data columns (total 11 columns):\\n\",\n      \"band_gap                     933 non-null float64\\n\",\n      \"composition                  933 non-null object\\n\",\n      \"density                      933 non-null float64\\n\",\n      \"e_above_hull                 933 non-null float64\\n\",\n      \"efermi                       796 non-null float64\\n\",\n      \"elements                     933 non-null object\\n\",\n      \"final_energy_per_atom        933 non-null float64\\n\",\n      \"formation_energy_per_atom    933 non-null float64\\n\",\n      \"pretty_formula               933 non-null object\\n\",\n      \"structure                    933 non-null object\\n\",\n      \"volume                       933 non-null float64\\n\",\n      \"dtypes: float64(7), object(4)\\n\",\n      \"memory usage: 87.5+ KB\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.datatools import preset\\n\",\n    \"\\n\",\n    \"samples = preset.mp_samples\\n\",\n    \"samples.head()\\n\",\n    \"samples.info()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### calculate descriptors from composition\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"Compositions:\\n\",\n       \"  |- composition:\\n\",\n       \"  |  |- WeightedAvgFeature\\n\",\n       \"  |  |- WeightedSumFeature\\n\",\n       \"  |  |- WeightedVarFeature\\n\",\n       \"  |  |- MaxFeature\\n\",\n       \"  |  |- MinFeature\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import Compositions\\n\",\n    \"\\n\",\n    \"cal = Compositions()\\n\",\n    \"cal\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Print ``cal`` object will show the structure information.\\n\",\n    \"This information tells us ``cal`` has one featurizer group called **composition** with 5 featurizers in it.\\n\",\n    \"\\n\",\n    \"To use this calculator, users only need to feed a iterable object containing composition information of compounds to the ``cal.transform`` or ``cal.fit_transform`` method of ``cal``.\\n\",\n    \"The input type can be ``pymatgen.Structure``, or dicts which have the structure like *{'H': 2, 'O': 1}*.\\n\",\n    \"\\n\",\n    \"Using our sample data, users will obtain a pandas.DataFrame object containing the calculated descriptors.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1008807</th>\\n\",\n       \"      <td>24.666667</td>\\n\",\n       \"      <td>174.067140</td>\\n\",\n       \"      <td>209.333333</td>\\n\",\n       \"      <td>25.666667</td>\\n\",\n       \"      <td>55.004267</td>\\n\",\n       \"      <td>1297.063333</td>\\n\",\n       \"      <td>72.868680</td>\\n\",\n       \"      <td>1646.90</td>\\n\",\n       \"      <td>139.333333</td>\\n\",\n       \"      <td>128.333333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.360</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>349.5</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1009640</th>\\n\",\n       \"      <td>33.000000</td>\\n\",\n       \"      <td>137.000000</td>\\n\",\n       \"      <td>232.500000</td>\\n\",\n       \"      <td>19.050000</td>\\n\",\n       \"      <td>77.457330</td>\\n\",\n       \"      <td>1931.200000</td>\\n\",\n       \"      <td>43.182441</td>\\n\",\n       \"      <td>1892.85</td>\\n\",\n       \"      <td>137.000000</td>\\n\",\n       \"      <td>123.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.192</td>\\n\",\n       \"      <td>0.02583</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>166.0</td>\\n\",\n       \"      <td>193.0</td>\\n\",\n       \"      <td>360.6</td>\\n\",\n       \"      <td>333.6</td>\\n\",\n       \"      <td>1.100</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1016825</th>\\n\",\n       \"      <td>21.600000</td>\\n\",\n       \"      <td>153.120852</td>\\n\",\n       \"      <td>203.400000</td>\\n\",\n       \"      <td>13.920000</td>\\n\",\n       \"      <td>50.158400</td>\\n\",\n       \"      <td>1420.714000</td>\\n\",\n       \"      <td>76.663625</td>\\n\",\n       \"      <td>343.82</td>\\n\",\n       \"      <td>102.800000</td>\\n\",\n       \"      <td>96.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.146</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>302.1</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1017582</th>\\n\",\n       \"      <td>59.400000</td>\\n\",\n       \"      <td>139.000000</td>\\n\",\n       \"      <td>232.800000</td>\\n\",\n       \"      <td>11.020000</td>\\n\",\n       \"      <td>147.233694</td>\\n\",\n       \"      <td>4226.000000</td>\\n\",\n       \"      <td>150.200000</td>\\n\",\n       \"      <td>1037.58</td>\\n\",\n       \"      <td>137.600000</td>\\n\",\n       \"      <td>124.800000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.133</td>\\n\",\n       \"      <td>13.00000</td>\\n\",\n       \"      <td>170.0</td>\\n\",\n       \"      <td>177.0</td>\\n\",\n       \"      <td>204.0</td>\\n\",\n       \"      <td>275.4</td>\\n\",\n       \"      <td>2475.0</td>\\n\",\n       \"      <td>1.670</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1021511</th>\\n\",\n       \"      <td>32.000000</td>\\n\",\n       \"      <td>140.500000</td>\\n\",\n       \"      <td>226.000000</td>\\n\",\n       \"      <td>14.300000</td>\\n\",\n       \"      <td>72.237000</td>\\n\",\n       \"      <td>877.912000</td>\\n\",\n       \"      <td>24.850000</td>\\n\",\n       \"      <td>272.50</td>\\n\",\n       \"      <td>124.500000</td>\\n\",\n       \"      <td>119.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.232</td>\\n\",\n       \"      <td>0.20500</td>\\n\",\n       \"      <td>180.0</td>\\n\",\n       \"      <td>189.0</td>\\n\",\n       \"      <td>215.0</td>\\n\",\n       \"      <td>284.8</td>\\n\",\n       \"      <td>2310.0</td>\\n\",\n       \"      <td>2.900</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>5 rows × 290 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-1008807          24.666667         174.067140              209.333333   \\n\",\n       \"mp-1009640          33.000000         137.000000              232.500000   \\n\",\n       \"mp-1016825          21.600000         153.120852              203.400000   \\n\",\n       \"mp-1017582          59.400000         139.000000              232.800000   \\n\",\n       \"mp-1021511          32.000000         140.500000              226.000000   \\n\",\n       \"\\n\",\n       \"            ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-1008807          25.666667          55.004267        1297.063333   \\n\",\n       \"mp-1009640          19.050000          77.457330        1931.200000   \\n\",\n       \"mp-1016825          13.920000          50.158400        1420.714000   \\n\",\n       \"mp-1017582          11.020000         147.233694        4226.000000   \\n\",\n       \"mp-1021511          14.300000          72.237000         877.912000   \\n\",\n       \"\\n\",\n       \"            ave:bulk_modulus  ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-1008807         72.868680    1646.90                   139.333333   \\n\",\n       \"mp-1009640         43.182441    1892.85                   137.000000   \\n\",\n       \"mp-1016825         76.663625     343.82                   102.800000   \\n\",\n       \"mp-1017582        150.200000    1037.58                   137.600000   \\n\",\n       \"mp-1021511         24.850000     272.50                   124.500000   \\n\",\n       \"\\n\",\n       \"            ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"mp-1008807                  128.333333  ...                1.0         2.0   \\n\",\n       \"mp-1009640                  123.500000  ...                2.0         2.0   \\n\",\n       \"mp-1016825                   96.000000  ...                2.0         2.0   \\n\",\n       \"mp-1017582                  124.800000  ...                1.0         2.0   \\n\",\n       \"mp-1021511                  119.500000  ...                2.0         3.0   \\n\",\n       \"\\n\",\n       \"            min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"mp-1008807              0.360                   0.02658           152.0   \\n\",\n       \"mp-1009640              0.192                   0.02583           155.0   \\n\",\n       \"mp-1016825              0.146                   0.02658           152.0   \\n\",\n       \"mp-1017582              0.133                  13.00000           170.0   \\n\",\n       \"mp-1021511              0.232                   0.20500           180.0   \\n\",\n       \"\\n\",\n       \"            min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"mp-1008807                   150.0               182.0               349.5   \\n\",\n       \"mp-1009640                   166.0               193.0               360.6   \\n\",\n       \"mp-1016825                   150.0               182.0               302.1   \\n\",\n       \"mp-1017582                   177.0               204.0               275.4   \\n\",\n       \"mp-1021511                   189.0               215.0               284.8   \\n\",\n       \"\\n\",\n       \"            min:sound_velocity  min:Polarizability  \\n\",\n       \"mp-1008807               317.5               0.802  \\n\",\n       \"mp-1009640               333.6               1.100  \\n\",\n       \"mp-1016825               317.5               0.802  \\n\",\n       \"mp-1017582              2475.0               1.670  \\n\",\n       \"mp-1021511              2310.0               2.900  \\n\",\n       \"\\n\",\n       \"[5 rows x 290 columns]\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"<class 'pandas.core.frame.DataFrame'>\\n\",\n      \"Index: 933 entries, mp-1008807 to mvc-4727\\n\",\n      \"Columns: 290 entries, ave:atomic_number to min:Polarizability\\n\",\n      \"dtypes: float64(290)\\n\",\n      \"memory usage: 2.1+ MB\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"descriptor = cal.transform(samples['composition'])\\n\",\n    \"descriptor.head(5)\\n\",\n    \"descriptor.info()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"If the input is a pandas.DataFrame object, the calculator will first try to read the data columns that have the same name as the featurizer groups.\\n\",\n    \"For example, the name of the featurizer group in the example above is **composition**.\\n\",\n    \"Therefore, the whole object entry can be fed into the calculator's methods without explicitly extracting the **composition** column in the ``samples``.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1008807</th>\\n\",\n       \"      <td>24.666667</td>\\n\",\n       \"      <td>174.067140</td>\\n\",\n       \"      <td>209.333333</td>\\n\",\n       \"      <td>25.666667</td>\\n\",\n       \"      <td>55.004267</td>\\n\",\n       \"      <td>1297.063333</td>\\n\",\n       \"      <td>72.868680</td>\\n\",\n       \"      <td>1646.90</td>\\n\",\n       \"      <td>139.333333</td>\\n\",\n       \"      <td>128.333333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.360</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>349.5</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1009640</th>\\n\",\n       \"      <td>33.000000</td>\\n\",\n       \"      <td>137.000000</td>\\n\",\n       \"      <td>232.500000</td>\\n\",\n       \"      <td>19.050000</td>\\n\",\n       \"      <td>77.457330</td>\\n\",\n       \"      <td>1931.200000</td>\\n\",\n       \"      <td>43.182441</td>\\n\",\n       \"      <td>1892.85</td>\\n\",\n       \"      <td>137.000000</td>\\n\",\n       \"      <td>123.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.192</td>\\n\",\n       \"      <td>0.02583</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>166.0</td>\\n\",\n       \"      <td>193.0</td>\\n\",\n       \"      <td>360.6</td>\\n\",\n       \"      <td>333.6</td>\\n\",\n       \"      <td>1.100</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1016825</th>\\n\",\n       \"      <td>21.600000</td>\\n\",\n       \"      <td>153.120852</td>\\n\",\n       \"      <td>203.400000</td>\\n\",\n       \"      <td>13.920000</td>\\n\",\n       \"      <td>50.158400</td>\\n\",\n       \"      <td>1420.714000</td>\\n\",\n       \"      <td>76.663625</td>\\n\",\n       \"      <td>343.82</td>\\n\",\n       \"      <td>102.800000</td>\\n\",\n       \"      <td>96.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.146</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>302.1</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1017582</th>\\n\",\n       \"      <td>59.400000</td>\\n\",\n       \"      <td>139.000000</td>\\n\",\n       \"      <td>232.800000</td>\\n\",\n       \"      <td>11.020000</td>\\n\",\n       \"      <td>147.233694</td>\\n\",\n       \"      <td>4226.000000</td>\\n\",\n       \"      <td>150.200000</td>\\n\",\n       \"      <td>1037.58</td>\\n\",\n       \"      <td>137.600000</td>\\n\",\n       \"      <td>124.800000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.133</td>\\n\",\n       \"      <td>13.00000</td>\\n\",\n       \"      <td>170.0</td>\\n\",\n       \"      <td>177.0</td>\\n\",\n       \"      <td>204.0</td>\\n\",\n       \"      <td>275.4</td>\\n\",\n       \"      <td>2475.0</td>\\n\",\n       \"      <td>1.670</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1021511</th>\\n\",\n       \"      <td>32.000000</td>\\n\",\n       \"      <td>140.500000</td>\\n\",\n       \"      <td>226.000000</td>\\n\",\n       \"      <td>14.300000</td>\\n\",\n       \"      <td>72.237000</td>\\n\",\n       \"      <td>877.912000</td>\\n\",\n       \"      <td>24.850000</td>\\n\",\n       \"      <td>272.50</td>\\n\",\n       \"      <td>124.500000</td>\\n\",\n       \"      <td>119.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.232</td>\\n\",\n       \"      <td>0.20500</td>\\n\",\n       \"      <td>180.0</td>\\n\",\n       \"      <td>189.0</td>\\n\",\n       \"      <td>215.0</td>\\n\",\n       \"      <td>284.8</td>\\n\",\n       \"      <td>2310.0</td>\\n\",\n       \"      <td>2.900</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>5 rows × 290 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-1008807          24.666667         174.067140              209.333333   \\n\",\n       \"mp-1009640          33.000000         137.000000              232.500000   \\n\",\n       \"mp-1016825          21.600000         153.120852              203.400000   \\n\",\n       \"mp-1017582          59.400000         139.000000              232.800000   \\n\",\n       \"mp-1021511          32.000000         140.500000              226.000000   \\n\",\n       \"\\n\",\n       \"            ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-1008807          25.666667          55.004267        1297.063333   \\n\",\n       \"mp-1009640          19.050000          77.457330        1931.200000   \\n\",\n       \"mp-1016825          13.920000          50.158400        1420.714000   \\n\",\n       \"mp-1017582          11.020000         147.233694        4226.000000   \\n\",\n       \"mp-1021511          14.300000          72.237000         877.912000   \\n\",\n       \"\\n\",\n       \"            ave:bulk_modulus  ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-1008807         72.868680    1646.90                   139.333333   \\n\",\n       \"mp-1009640         43.182441    1892.85                   137.000000   \\n\",\n       \"mp-1016825         76.663625     343.82                   102.800000   \\n\",\n       \"mp-1017582        150.200000    1037.58                   137.600000   \\n\",\n       \"mp-1021511         24.850000     272.50                   124.500000   \\n\",\n       \"\\n\",\n       \"            ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"mp-1008807                  128.333333  ...                1.0         2.0   \\n\",\n       \"mp-1009640                  123.500000  ...                2.0         2.0   \\n\",\n       \"mp-1016825                   96.000000  ...                2.0         2.0   \\n\",\n       \"mp-1017582                  124.800000  ...                1.0         2.0   \\n\",\n       \"mp-1021511                  119.500000  ...                2.0         3.0   \\n\",\n       \"\\n\",\n       \"            min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"mp-1008807              0.360                   0.02658           152.0   \\n\",\n       \"mp-1009640              0.192                   0.02583           155.0   \\n\",\n       \"mp-1016825              0.146                   0.02658           152.0   \\n\",\n       \"mp-1017582              0.133                  13.00000           170.0   \\n\",\n       \"mp-1021511              0.232                   0.20500           180.0   \\n\",\n       \"\\n\",\n       \"            min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"mp-1008807                   150.0               182.0               349.5   \\n\",\n       \"mp-1009640                   166.0               193.0               360.6   \\n\",\n       \"mp-1016825                   150.0               182.0               302.1   \\n\",\n       \"mp-1017582                   177.0               204.0               275.4   \\n\",\n       \"mp-1021511                   189.0               215.0               284.8   \\n\",\n       \"\\n\",\n       \"            min:sound_velocity  min:Polarizability  \\n\",\n       \"mp-1008807               317.5               0.802  \\n\",\n       \"mp-1009640               333.6               1.100  \\n\",\n       \"mp-1016825               317.5               0.802  \\n\",\n       \"mp-1017582              2475.0               1.670  \\n\",\n       \"mp-1021511              2310.0               2.900  \\n\",\n       \"\\n\",\n       \"[5 rows x 290 columns]\"\n      ]\n     },\n     \"execution_count\": 5,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"<class 'pandas.core.frame.DataFrame'>\\n\",\n      \"Index: 933 entries, mp-1008807 to mvc-4727\\n\",\n      \"Columns: 290 entries, ave:atomic_number to min:Polarizability\\n\",\n      \"dtypes: float64(290)\\n\",\n      \"memory usage: 2.1+ MB\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"descriptor = cal.transform(samples)\\n\",\n    \"descriptor.head(5)\\n\",\n    \"descriptor.info()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Also, users can specify what featurizers will be used in a calculation by feeding a ``featurizers`` parameter to calculator.\\n\",\n    \"For example, the following code only calculate **WeightedAvgFeature** and **WeightedSumFeature** descriptors.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>sum:num_s_valence</th>\\n\",\n       \"      <th>sum:period</th>\\n\",\n       \"      <th>sum:specific_heat</th>\\n\",\n       \"      <th>sum:thermal_conductivity</th>\\n\",\n       \"      <th>sum:vdw_radius</th>\\n\",\n       \"      <th>sum:vdw_radius_alvarez</th>\\n\",\n       \"      <th>sum:vdw_radius_mm3</th>\\n\",\n       \"      <th>sum:vdw_radius_uff</th>\\n\",\n       \"      <th>sum:sound_velocity</th>\\n\",\n       \"      <th>sum:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1008807</th>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1009640</th>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1016825</th>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1017582</th>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1021511</th>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>5 rows × 116 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-1008807                NaN                NaN                     NaN   \\n\",\n       \"mp-1009640                NaN                NaN                     NaN   \\n\",\n       \"mp-1016825                NaN                NaN                     NaN   \\n\",\n       \"mp-1017582                NaN                NaN                     NaN   \\n\",\n       \"mp-1021511                NaN                NaN                     NaN   \\n\",\n       \"\\n\",\n       \"            ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-1008807                NaN                NaN                NaN   \\n\",\n       \"mp-1009640                NaN                NaN                NaN   \\n\",\n       \"mp-1016825                NaN                NaN                NaN   \\n\",\n       \"mp-1017582                NaN                NaN                NaN   \\n\",\n       \"mp-1021511                NaN                NaN                NaN   \\n\",\n       \"\\n\",\n       \"            ave:bulk_modulus  ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-1008807               NaN        NaN                          NaN   \\n\",\n       \"mp-1009640               NaN        NaN                          NaN   \\n\",\n       \"mp-1016825               NaN        NaN                          NaN   \\n\",\n       \"mp-1017582               NaN        NaN                          NaN   \\n\",\n       \"mp-1021511               NaN        NaN                          NaN   \\n\",\n       \"\\n\",\n       \"            ave:covalent_radius_pyykko  ...  sum:num_s_valence  sum:period  \\\\\\n\",\n       \"mp-1008807                         NaN  ...                NaN         NaN   \\n\",\n       \"mp-1009640                         NaN  ...                NaN         NaN   \\n\",\n       \"mp-1016825                         NaN  ...                NaN         NaN   \\n\",\n       \"mp-1017582                         NaN  ...                NaN         NaN   \\n\",\n       \"mp-1021511                         NaN  ...                NaN         NaN   \\n\",\n       \"\\n\",\n       \"            sum:specific_heat  sum:thermal_conductivity  sum:vdw_radius  \\\\\\n\",\n       \"mp-1008807                NaN                       NaN             NaN   \\n\",\n       \"mp-1009640                NaN                       NaN             NaN   \\n\",\n       \"mp-1016825                NaN                       NaN             NaN   \\n\",\n       \"mp-1017582                NaN                       NaN             NaN   \\n\",\n       \"mp-1021511                NaN                       NaN             NaN   \\n\",\n       \"\\n\",\n       \"            sum:vdw_radius_alvarez  sum:vdw_radius_mm3  sum:vdw_radius_uff  \\\\\\n\",\n       \"mp-1008807                     NaN                 NaN                 NaN   \\n\",\n       \"mp-1009640                     NaN                 NaN                 NaN   \\n\",\n       \"mp-1016825                     NaN                 NaN                 NaN   \\n\",\n       \"mp-1017582                     NaN                 NaN                 NaN   \\n\",\n       \"mp-1021511                     NaN                 NaN                 NaN   \\n\",\n       \"\\n\",\n       \"            sum:sound_velocity  sum:Polarizability  \\n\",\n       \"mp-1008807                 NaN                 NaN  \\n\",\n       \"mp-1009640                 NaN                 NaN  \\n\",\n       \"mp-1016825                 NaN                 NaN  \\n\",\n       \"mp-1017582                 NaN                 NaN  \\n\",\n       \"mp-1021511                 NaN                 NaN  \\n\",\n       \"\\n\",\n       \"[5 rows x 116 columns]\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"<class 'pandas.core.frame.DataFrame'>\\n\",\n      \"Index: 933 entries, mp-1008807 to mvc-4727\\n\",\n      \"Columns: 116 entries, ave:atomic_number to sum:Polarizability\\n\",\n      \"dtypes: float64(116)\\n\",\n      \"memory usage: 852.8+ KB\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"descriptor = cal.transform(samples, featurizers=['WeightedAvgFeature', 'WeightedSumFeature'])\\n\",\n    \"descriptor.head(5)\\n\",\n    \"descriptor.info()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### calculate structural descriptors from structure\\n\",\n    \"\\n\",\n    \"Similar to the ``Compositions`` calculator. ``Structures`` calculator accept ``pymatgen.Structure`` objects as its input, and then return calculated result as a pandas.DataFrame.\\n\",\n    \"\\n\",\n    \"``samples`` also has the structure information. We can use these to calculate structural descriptors.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {\n    \"scrolled\": true\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"Structures:\\n\",\n       \"  |- structure:\\n\",\n       \"  |  |- RadialDistributionFunction\\n\",\n       \"  |  |- ObitalFieldMatrix\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import Structures\\n\",\n    \"\\n\",\n    \"cal = Structures()\\n\",\n    \"cal\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>0.1</th>\\n\",\n       \"      <th>0.2</th>\\n\",\n       \"      <th>0.30000000000000004</th>\\n\",\n       \"      <th>0.4</th>\\n\",\n       \"      <th>0.5</th>\\n\",\n       \"      <th>0.6000000000000001</th>\\n\",\n       \"      <th>0.7000000000000001</th>\\n\",\n       \"      <th>0.8</th>\\n\",\n       \"      <th>0.9</th>\\n\",\n       \"      <th>1.0</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>f14_f5</th>\\n\",\n       \"      <th>f14_f6</th>\\n\",\n       \"      <th>f14_f7</th>\\n\",\n       \"      <th>f14_f8</th>\\n\",\n       \"      <th>f14_f9</th>\\n\",\n       \"      <th>f14_f10</th>\\n\",\n       \"      <th>f14_f11</th>\\n\",\n       \"      <th>f14_f12</th>\\n\",\n       \"      <th>f14_f13</th>\\n\",\n       \"      <th>f14_f14</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1008807</th>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1009640</th>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1016825</th>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1017582</th>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.3851</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1021511</th>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>5 rows × 1224 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            0.1  0.2  0.30000000000000004  0.4  0.5  0.6000000000000001  \\\\\\n\",\n       \"mp-1008807  0.0  0.0                  0.0  0.0  0.0                 0.0   \\n\",\n       \"mp-1009640  0.0  0.0                  0.0  0.0  0.0                 0.0   \\n\",\n       \"mp-1016825  0.0  0.0                  0.0  0.0  0.0                 0.0   \\n\",\n       \"mp-1017582  0.0  0.0                  0.0  0.0  0.0                 0.0   \\n\",\n       \"mp-1021511  0.0  0.0                  0.0  0.0  0.0                 0.0   \\n\",\n       \"\\n\",\n       \"            0.7000000000000001  0.8  0.9  1.0  ...  f14_f5  f14_f6  f14_f7  \\\\\\n\",\n       \"mp-1008807                 0.0  0.0  0.0  0.0  ...     0.0     0.0     0.0   \\n\",\n       \"mp-1009640                 0.0  0.0  0.0  0.0  ...     0.0     0.0     0.0   \\n\",\n       \"mp-1016825                 0.0  0.0  0.0  0.0  ...     0.0     0.0     0.0   \\n\",\n       \"mp-1017582                 0.0  0.0  0.0  0.0  ...     0.0     0.0     0.0   \\n\",\n       \"mp-1021511                 0.0  0.0  0.0  0.0  ...     0.0     0.0     0.0   \\n\",\n       \"\\n\",\n       \"            f14_f8  f14_f9  f14_f10  f14_f11  f14_f12  f14_f13  f14_f14  \\n\",\n       \"mp-1008807     0.0     0.0      0.0      0.0      0.0      0.0   0.0000  \\n\",\n       \"mp-1009640     0.0     0.0      0.0      0.0      0.0      0.0   0.0000  \\n\",\n       \"mp-1016825     0.0     0.0      0.0      0.0      0.0      0.0   0.0000  \\n\",\n       \"mp-1017582     0.0     0.0      0.0      0.0      0.0      0.0   0.3851  \\n\",\n       \"mp-1021511     0.0     0.0      0.0      0.0      0.0      0.0   0.0000  \\n\",\n       \"\\n\",\n       \"[5 rows x 1224 columns]\"\n      ]\n     },\n     \"execution_count\": 9,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"<class 'pandas.core.frame.DataFrame'>\\n\",\n      \"Index: 933 entries, mp-1008807 to mvc-4727\\n\",\n      \"Columns: 1224 entries, 0.1 to f14_f14\\n\",\n      \"dtypes: float64(1224)\\n\",\n      \"memory usage: 8.7+ MB\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"descriptor = cal.transform(samples)\\n\",\n    \"descriptor.head(5)\\n\",\n    \"descriptor.info()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### the base classes\\n\",\n    \"\\n\",\n    \"There are still lots of details for descriptor calculator system.\\n\",\n    \"Before we fill these documents, you can see https://github.com/yoshida-lab/XenonPy/blob/master/samples/custom_descriptor_calculator.ipynb for imaging.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Base class of rdf: (<class 'xenonpy.descriptor.base.BaseDescriptor'>,)\\n\",\n      \"Base class of composition: (<class 'xenonpy.descriptor.base.BaseFeaturizer'>,)\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import Compositions, ObitalFieldMatrix\\n\",\n    \"\\n\",\n    \"print('Base class of rdf:', Compositions.__bases__)\\n\",\n    \"print('Base class of composition:', ObitalFieldMatrix.__bases__)\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.6.8\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 2\n}\n"
  },
  {
    "path": "samples/custom_descriptor_calculator.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run tools.ipynb\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### BaseFeaturizer and BaseDescriptor \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# --- import necessary libraries\\n\",\n    \"from xenonpy.descriptor.base import BaseDescriptor, BaseFeaturizer\\n\",\n    \"\\n\",\n    \"# --- Featurizer ---\\n\",\n    \"class RadialDistributionFunction_(BaseFeaturizer):\\n\",\n    \"\\n\",\n    \"    @property\\n\",\n    \"    def feature_labels(self):\\n\",\n    \"        return [str(d) for d in self._interval[1:]]\\n\",\n    \"\\n\",\n    \"    def __init__(self, n_bins=201, r_max=20.0, *, n_jobs=-1, on_errors='raise', return_type='any'):\\n\",\n    \"\\n\",\n    \"        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type)\\n\",\n    \"\\n\",\n    \"        self.n_bins = n_bins\\n\",\n    \"        self.r_max = r_max\\n\",\n    \"        self.dr = r_max / (n_bins - 1)\\n\",\n    \"        self._interval = np.arange(0.0, r_max + self.dr, self.dr)\\n\",\n    \"        self.__authors__ = ['TsumiNa']\\n\",\n    \"\\n\",\n    \"    def featurize(self, structure):\\n\",\n    \"\\n\",\n    \"        # Get the distances between all atoms\\n\",\n    \"        neighbors_lst = structure.get_all_neighbors(self.r_max)\\n\",\n    \"        all_distances = np.concatenate(tuple(map(lambda x: [e[1] for e in x], neighbors_lst)))\\n\",\n    \"\\n\",\n    \"        # Compute a histogram\\n\",\n    \"        dist_hist, dist_bins = np.histogram(all_distances, bins=self._interval, density=False)\\n\",\n    \"\\n\",\n    \"        # Normalize counts\\n\",\n    \"        shell_vol = 4.0 / 3.0 * np.pi * (np.power(dist_bins[1:], 3) - np.power(dist_bins[:-1], 3))\\n\",\n    \"        number_density = structure.num_sites / structure.volume\\n\",\n    \"        return dist_hist / shell_vol / number_density\\n\",\n    \"\\n\",\n    \"# --- Descriptor ---\\n\",\n    \"class Compositions_(BaseDescriptor):\\n\",\n    \"\\n\",\n    \"    def __init__(self, elements=None, *, n_jobs=-1, include=None,\\n\",\n    \"                 exclude=None, on_errors='raise'):\\n\",\n    \"        super().__init__()\\n\",\n    \"        self.n_jobs = n_jobs\\n\",\n    \"\\n\",\n    \"        self.composition = WeightedAvgFeature(elements, n_jobs=n_jobs, on_errors=on_errors)\\n\",\n    \"        self.composition = WeightedSumFeature(elements, n_jobs=n_jobs, on_errors=on_errors)\\n\",\n    \"        self.composition = WeightedVarFeature(elements, n_jobs=n_jobs, on_errors=on_errors)\\n\",\n    \"        self.composition = MaxFeature(elements, n_jobs=n_jobs, on_errors=on_errors)\\n\",\n    \"        self.composition = MinFeature(elements, n_jobs=n_jobs, on_errors=on_errors)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### build your own\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# --- import necessary libraries\\n\",\n    \"\\n\",\n    \"from xenonpy.descriptor.base import BaseDescriptor, BaseFeaturizer\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"class YourFeaturier1(BaseFeaturizer):\\n\",\n    \"\\n\",\n    \"    def __init__(self, n_jobs=1):\\n\",\n    \"        super().__init__(n_jobs=n_jobs)\\n\",\n    \"\\n\",\n    \"    def featurize(self, x):\\n\",\n    \"        return x * 10\\n\",\n    \"\\n\",\n    \"    @property\\n\",\n    \"    def feature_labels(self):\\n\",\n    \"        return ['times']\\n\",\n    \"\\n\",\n    \"class YourFeaturier2(BaseFeaturizer):\\n\",\n    \"\\n\",\n    \"    def __init__(self, n_jobs=1):\\n\",\n    \"        super().__init__(n_jobs=n_jobs)\\n\",\n    \"\\n\",\n    \"    def featurize(self, x):\\n\",\n    \"        return x ** 2\\n\",\n    \"\\n\",\n    \"    @property\\n\",\n    \"    def feature_labels(self):\\n\",\n    \"        return ['power']    \\n\",\n    \"\\n\",\n    \"class YourDescriptor(BaseDescriptor):\\n\",\n    \"\\n\",\n    \"    def __init__(self):\\n\",\n    \"        super().__init__()\\n\",\n    \"        self.f1 = YourFeaturier1()\\n\",\n    \"        self.f2 = YourFeaturier2()\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"test_data1 = np.array([1, 2, 3, 4, 5])\\n\",\n    \"test_data2 = np.array([6, 7, 8, 9, 10])\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>times</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>10</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>20</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>30</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>40</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>50</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"   times\\n\",\n       \"0     10\\n\",\n       \"1     20\\n\",\n       \"2     30\\n\",\n       \"3     40\\n\",\n       \"4     50\"\n      ]\n     },\n     \"execution_count\": 5,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"yf1 = YourFeaturier1()\\n\",\n    \"yf1.fit_transform(test_data1, return_type='df')\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>power</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>36</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>49</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>64</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>81</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>100</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"   power\\n\",\n       \"0     36\\n\",\n       \"1     49\\n\",\n       \"2     64\\n\",\n       \"3     81\\n\",\n       \"4    100\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"yf2 = YourFeaturier2()\\n\",\n    \"yf2.fit_transform(test_data2, return_type='df')\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>f1</th>\\n\",\n       \"      <th>f2</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>6</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>7</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>8</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>9</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>10</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"   f1  f2\\n\",\n       \"0   1   6\\n\",\n       \"1   2   7\\n\",\n       \"2   3   8\\n\",\n       \"3   4   9\\n\",\n       \"4   5  10\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"test_data = pd.DataFrame({'f1': test_data1, 'f2': test_data2})\\n\",\n    \"test_data\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>times</th>\\n\",\n       \"      <th>power</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>10</td>\\n\",\n       \"      <td>36</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>20</td>\\n\",\n       \"      <td>49</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>30</td>\\n\",\n       \"      <td>64</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>40</td>\\n\",\n       \"      <td>81</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>50</td>\\n\",\n       \"      <td>100</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"   times  power\\n\",\n       \"0     10     36\\n\",\n       \"1     20     49\\n\",\n       \"2     30     64\\n\",\n       \"3     40     81\\n\",\n       \"4     50    100\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"yd = YourDescriptor()\\n\",\n    \"yd.fit_transform(test_data)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.6.8\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 2\n}\n"
  },
  {
    "path": "samples/data/Dataset_I.csv",
    "content": "Molecule_ID,SMILES,V1,V2,V3,V4,V5,V6,V7,V8,V9,V10,V11,V12,V13,V14,V15,V16,V17,V18,V19,V20,V21,V22,V23,V24,V25,V26,V27,V28,V29,V30,V31,V32,V33,V34,V35,V36,V37,V38,V39,V40,V41,V42,V43,V44,V45,V46,V47,V48,V49,V50,V51,V52,V53,V54,V55,V56,V57,V58,V59,V60,V61,V62,V63,V64,V65,V66,V67,V68,V69,V70,V71,V72,V73,V74,V75,V76,V77,V78,V79,V80,V81,V82,V83,V84,V85,V86,V87,V88,V89,V90,V91,V92,V93,V94,V95,V96,V97,V98,V99,V100,V101,V102,V103,V104,V105,V106,V107,V108,V109,V110,V111,V112,V113,V114,V115,V116,V117,V118,V119,V120,V121,V122,V123,V124,V125,V126,V127,V128,V129,V130,V131,V132,V133,V134,V135,V136,V137,V138,V139,V140,V141,V142,V143,V144,V145,V146,V147,V148,V149,V150,V151,V152,V153,V154,V155,V156,V157,V158,V159,V160,V161,V162,V163,V164,V165,V166,V167,V168,V169,V170,V171,V172,V173,V174,V175,V176,V177,V178,V179,V180,V181\nSRI-1052869-001.txt,COc1ccccc1-c1nc(CC(=O)N[C@@H](Cc2c[nH]c3ccccc23)C(O)=O)cs1,0.99578948,1,0.999024932,0.988136675,0.969891088,0.940077651,0.896125731,0.845525621,0.782441688,0.710345765,0.636609955,0.56714376,0.503335914,0.447299062,0.398929789,0.357770109,0.322844952,0.293297443,0.268329797,0.246893079,0.228810004,0.213504394,0.200355752,0.189334531,0.180219124,0.172418582,0.166139736,0.160939374,0.156965234,0.15423209,0.152428214,0.15141769,0.151673275,0.152747327,0.154792015,0.157934393,0.162246852,0.167417666,0.173445358,0.180547102,0.188649029,0.197556125,0.207312713,0.21805471,0.229492551,0.241664648,0.254637482,0.26814808,0.281862557,0.296173893,0.310492616,0.325072835,0.339619074,0.354224407,0.368466307,0.3822842,0.395616036,0.409052766,0.422845543,0.437248477,0.451926202,0.466132645,0.47979689,0.491932053,0.502109692,0.510511526,0.517276429,0.523409014,0.531273084,0.541427086,0.552479332,0.562163528,0.567196946,0.567154102,0.564607107,0.560854573,0.557493544,0.555827064,0.555246456,0.555338053,0.556098901,0.55665144,0.557268983,0.557396037,0.557001578,0.555986621,0.554560954,0.55264332,0.550001773,0.546447207,0.541876208,0.535990344,0.529054066,0.520430625,0.510542551,0.499181534,0.486353483,0.472183975,0.456845862,0.440667124,0.424024489,0.406932732,0.389227864,0.371608685,0.353849154,0.335584361,0.317196946,0.298378137,0.279089523,0.259413837,0.239095492,0.218660434,0.198039227,0.17741802,0.157124791,0.137629344,0.119144422,0.101807421,0.0862152,0.072121038,0.059799727,0.049282291,0.04036633,0.032840579,0.026725722,0.021611048,0.017632476,0.014342361,0.011884008,0.009930918,0.008270348,0.00706481,0.006125199,0.005325939,0.004624185,0.004061305,0.00365355,0.003325572,0.002979866,0.002694733,0.002411077,0.002199812,0.001978206,0.001786147,0.001610339,0.001474421,0.001399075,0.001363618,0.001307477,0.001165649,0.000998706,0.000846536,0.000726869,0.000645613,0.000587995,0.000543674,0.000508217,0.000471283,0.000434348,0.000394459,0.000351615,0.000304339,0.000249676,0.000206833,0.000165466,0.0001241,7.24E-05,0.000103416,0.000115235,9.6E-05,8.57E-05,9.9E-05,2.66E-05,4.43E-06,0,3.55E-05,7.39E-06,2.07E-05,5.47E-05,6.5E-05,4.43E-06\nSRI-1052911-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NS(=O)(=O)c1ccc(Br)cc1,0.99374367,1,0.996480815,0.982795093,0.957378754,0.9221869,0.877219531,0.826386852,0.773325357,0.721515127,0.673967021,0.633105368,0.599321188,0.573083706,0.552359614,0.535897646,0.523072171,0.511263348,0.499571832,0.487059173,0.473177942,0.456872383,0.438768129,0.418044037,0.395560352,0.371238871,0.345118694,0.318685702,0.291822586,0.26570241,0.241064202,0.218873782,0.199428328,0.182786491,0.169304101,0.158777826,0.150996516,0.145580881,0.141893556,0.140388127,0.139938453,0.140306013,0.14138914,0.142702969,0.144329615,0.146339461,0.148963209,0.151942786,0.154758134,0.157225474,0.159329165,0.161057476,0.162574636,0.163720326,0.164459355,0.164674417,0.164682237,0.164557111,0.1645532,0.165026335,0.165186654,0.16454929,0.163329306,0.161241256,0.157890209,0.152955529,0.147219257,0.141166258,0.136712533,0.134253014,0.13304085,0.130174669,0.124199874,0.114264041,0.101774843,0.088769497,0.076252928,0.065132302,0.055779089,0.047485542,0.040279032,0.034210393,0.029095843,0.024759425,0.020931333,0.017928295,0.015269355,0.013142202,0.011269214,0.00986154,0.008715849,0.00777349,0.006999269,0.006225048,0.00550166,0.005200574,0.004809553,0.004348149,0.004093986,0.003636492,0.003362777,0.003331496,0.003120344,0.002885732,0.002627658,0.002432148,0.002486891,0.002252279,0.002189715,0.002217087,0.00189645,0.001642287,0.001454597,0.001415495,0.001591454,0.001298188,0.001251266,0.000848515,0.000868066,0.000918898,0.00095018,0.000633453,0.000871976,0.000707747,0.000840694,0.000871976,0.000727298,0.000817233,0.000633453,0.000742939,0.000719478,0.000649094,0.000523968,0.000430123,0.00075858,0.000621723,0.000664735,0.000469225,0.000473135,0.000480955,0.000269804,0.000367559,0.000367559,0.00037929,0.000363649,0.000441853,0.000449674,0.000426212,0.00038711,0.000324547,0.000277625,0.000246343,0.000226792,0.000218972,0.000226792,0.000238523,0.000246343,0.000254163,0.000258074,0.000261984,0.000269804,0.000269804,0.000265894,0.000265894,0.000269804,0.000277625,0.000254163,0.00018769,0.000129037,0,0.000160318,0.000316727,0.000301086,0.000144678,0.000179869,0.000132947,0.000277625,0.000218972,0.000218972,0.000199421,0.000348008\nSRI-1052879-001.txt,CCc1cc(=O)oc2cc(OCC(=O)N[C@@H](Cc3c[nH]c4ccccc34)C(O)=O)ccc12,1,0.98085134,0.950851773,0.91045722,0.860875869,0.802518049,0.736660337,0.665422764,0.592498285,0.519687786,0.451276919,0.390320353,0.337228414,0.292411432,0.255778222,0.226097799,0.202617895,0.183811176,0.168697412,0.156205192,0.145445468,0.135985119,0.127391018,0.119617574,0.113189095,0.108151174,0.104572198,0.102338188,0.101380755,0.101266775,0.101554005,0.102112507,0.10261402,0.10312921,0.103922512,0.105506835,0.10823324,0.112037896,0.116966396,0.123002783,0.129736729,0.13717963,0.145167357,0.1535221,0.162243858,0.171182179,0.180259556,0.189252587,0.198352759,0.207359468,0.216156454,0.224632015,0.233018672,0.241129497,0.248442462,0.255119417,0.261112492,0.266790981,0.272214155,0.277678362,0.282896372,0.287747365,0.29138789,0.294032229,0.295219902,0.295014738,0.293437253,0.291645485,0.291469956,0.292354442,0.293817946,0.292922063,0.288611335,0.280254312,0.270028016,0.260177855,0.252051072,0.246126386,0.242975975,0.241847572,0.24277537,0.245497215,0.249632414,0.255320022,0.261392883,0.268411778,0.275576568,0.282465527,0.289422873,0.295735092,0.301723607,0.307133104,0.312063884,0.316762144,0.320776524,0.324907163,0.328255899,0.331155553,0.333188959,0.33421478,0.334087122,0.332523315,0.329117589,0.324104743,0.317459702,0.309522127,0.300679549,0.291367374,0.281546847,0.271792429,0.262099559,0.252532068,0.242859716,0.233597691,0.22374297,0.213295553,0.20230559,0.190365033,0.177501237,0.163367702,0.148579922,0.133188047,0.11768903,0.102582106,0.088090673,0.074725365,0.062472502,0.051726457,0.042270666,0.034323973,0.027845343,0.022376577,0.017929072,0.014226998,0.011258956,0.008901847,0.007119198,0.005660253,0.004525011,0.003649643,0.002940687,0.002363948,0.001923984,0.001632195,0.001324449,0.001189952,0.001132962,0.001117005,0.001064574,0.000930078,0.000770506,0.00062917,0.000522029,0.000449082,0.00039893,0.000360177,0.000330542,0.000300908,0.000268993,0.000243917,0.000223401,0.000198325,0.000175529,0.00017097,0.00017325,0.000175529,0.000164131,0.000239358,0.00011398,0.000257595,0.000161852,0.000109421,9.12E-06,0.00011398,8.21E-05,0.000111701,8.43E-05,6.38E-05,3.19E-05,7.29E-05,0\nSRI-1052901-001.txt,COC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)c1ccc(Cl)cc1-n1cnnn1,0.995305164,1,0.994699379,0.981977889,0.958049371,0.924882629,0.88172043,0.828199303,0.769498713,0.708420415,0.649174618,0.595093139,0.546675753,0.504952294,0.46958958,0.439875814,0.414432834,0.392548841,0.373360594,0.356095714,0.340239285,0.325685295,0.311782523,0.29836438,0.285658034,0.273375738,0.261396335,0.249886415,0.238739967,0.228229593,0.218340148,0.208968651,0.200398304,0.192589732,0.185485385,0.179238225,0.173913373,0.169624413,0.165895805,0.163103135,0.160907163,0.159607754,0.159018628,0.159035287,0.159401787,0.160390731,0.161755263,0.163516583,0.16531728,0.167352718,0.169412388,0.171246403,0.17310162,0.174649402,0.175583826,0.175724671,0.175412691,0.175179464,0.175235499,0.175738301,0.17636226,0.176597001,0.175876117,0.173784643,0.169768287,0.163430259,0.155567166,0.14808269,0.142756323,0.140208996,0.138868696,0.135441466,0.127355747,0.114616084,0.099389671,0.084142057,0.070470998,0.05881569,0.049256399,0.041134333,0.034379827,0.028762684,0.024022414,0.020131758,0.016930183,0.01435711,0.012212631,0.01053612,0.009153415,0.007996365,0.007105861,0.006512191,0.005930638,0.005423292,0.005114342,0.004891716,0.004667575,0.004402544,0.004243526,0.004084507,0.003907315,0.0037801,0.003721036,0.00349841,0.003324247,0.003274269,0.003119794,0.00287748,0.002753294,0.002692715,0.002548841,0.002450401,0.002286839,0.002168711,0.002091474,0.001949114,0.001729517,0.001631077,0.001555354,0.001437226,0.001290323,0.00114342,0.000963199,0.000782977,0.000675451,0.000619415,0.000583068,0.000528548,0.000422535,0.000298349,0.000245343,0.00014236,0.000202938,0.000178707,0.00021051,0.000186279,9.84E-05,0.000101469,8.94E-05,0.000110556,0.000127215,0.000157504,9.24E-05,0.000128729,9.39E-05,0.000104498,0.000116614,0.000118128,0.000109041,0.0001,9.24E-05,8.63E-05,7.88E-05,7.42E-05,6.82E-05,6.21E-05,6.06E-05,5.45E-05,4.85E-05,4.39E-05,3.79E-05,3.33E-05,2.88E-05,2.57E-05,2.42E-05,2.27E-05,4.09E-05,0.000149932,7.42E-05,6.97E-05,4.54E-05,1.97E-05,1.21E-05,0,3.94E-05,0,9.09E-06,4.69E-05,4.39E-05,1.97E-05,1.51E-06\nSRI-0000334.txt,CC(C(O)=O)[C@]1(O)CCC2C3CC=C4CC(O)CCC4(C)C3CCC12C,1,0.832158442,0.731453508,0.597180262,0.530043639,0.429338704,0.362202081,0.32863377,0.261497147,0.24135616,0.204431017,0.187646861,0.157435381,0.147364888,0.117153407,0.103726083,0.093655589,0.09701242,0.076871433,0.070157771,0.063444109,0.056730446,0.053373615,0.053373615,0.050016784,0.046659953,0.046659953,0.046659953,0.043303122,0.033232628,0.043303122,0.034239678,0.041960389,0.037932192,0.041960389,0.04632427,0.038603558,0.030882847,0.039946291,0.037596509,0.037260826,0.02047667,0.020812353,0.032225579,0.036253776,0.039610608,0.033232628,0.033903995,0.033232628,0.025176234,0.022155086,0.02047667,0.038603558,0.027190332,0.033232628,0.042631756,0.020140987,0.019469621,0.022490769,0.071836187,0.164149043,0.250083921,0.297750923,0.343068144,0.359180933,0.388049681,0.396777442,0.406847936,0.377307821,0.365894596,0.360523666,0.336690164,0.309499832,0.29305136,0.27693857,0.24672709,0.216515609,0.198724404,0.186975495,0.155085599,0.114803625,0.111111111,0.090634441,0.070157771,0.076200067,0.063444109,0.056730446,0.055723397,0.038939241,0.04095334,0.026518966,0.03121853,0.028868748,0.026518966,0.021819402,0.00537093,0.009063444,0.017791205,0.021819402,0.019133938,0.019805304,0.013427325,0.033568312,0.016784156,0.015441423,0.021148036,0.021148036,0.019805304,0.023833501,0.020140987,0.015777106,0.017791205,0.034575361,0.019133938,0.016784156,0.020812353,0.014434374,0.020140987,0.023833501,0.022490769,0.020140987,0.023833501,0.005035247,0.013091641,0.01074186,0.021819402,0.019469621,0.03021148,0.026183283,0.027190332,0.018126888,0.030882847,0.027861699,0.012084592,0.012084592,0.022826452,0.020140987,0.023162135,0.01510574,0.029204431,0.021819402,0.026183283,0,0.018126888,0.015441423,0.016784156,0.017455522,0.016784156,0.01611279,0.019133938,0.021148036,0.022155086,0.022490769,0.022155086,0.021148036,0.02047667,0.019805304,0.018798254,0.018126888,0.017791205,0.017455522,0.017455522,0.016448473,0.015441423,0.012420275,0.011413226,0.016784156,0.025511917,0.028868748,0.028533065,0.01510574,0.026183283,0.022155086,0.020140987,0.015777106,0.029204431,0.020812353,0.019133938,0.021819402,0.034575361,0.024169184\nSRI-0000446.txt,[O-][N+](=O)C1=CC=C(S1)\\C=N\\NC(=O)CCCCCCCCC=C,0.273030859,0.259043623,0.245056386,0.22757234,0.211836699,0.194352653,0.180365417,0.161132966,0.14714573,0.133158493,0.122668065,0.113926042,0.106932424,0.10518402,0.106932424,0.112177638,0.119171256,0.130885567,0.143998601,0.159559402,0.179316374,0.199772707,0.222851648,0.247329312,0.272856019,0.300305971,0.327930763,0.356779439,0.385453274,0.415001311,0.443849987,0.472698662,0.501022817,0.528297928,0.553999475,0.578826821,0.602028149,0.621890025,0.639304135,0.653676021,0.666124661,0.673030859,0.676055599,0.676038115,0.673083311,0.666107177,0.654795,0.640143369,0.620840983,0.59861876,0.573406766,0.545467261,0.514695341,0.483206574,0.449707142,0.416784684,0.384649008,0.352845528,0.32195122,0.292980156,0.265145555,0.239339103,0.215525833,0.1922196,0.172357724,0.153632311,0.136567882,0.120727336,0.106215578,0.09226331,0.079552408,0.068467523,0.058239357,0.048325903,0.04113996,0.033814145,0.026558266,0.02152286,0.015997902,0.012588513,0.008637119,0.006119416,0.004266107,0.002447766,0.000769298,0,0,8.74E-05,0.000664394,0.002395314,0.003496809,0.006329225,0.008864411,0.011889151,0.015560801,0.01987936,0.025474255,0.030299851,0.035387709,0.042975785,0.050319084,0.059061107,0.068082874,0.077454323,0.088609144,0.099728997,0.111443308,0.124346534,0.138176414,0.152425911,0.166657925,0.183302736,0.199125798,0.216732232,0.233849113,0.253308856,0.271527231,0.292018533,0.312439899,0.332494099,0.354646385,0.375592272,0.39788443,0.420648658,0.444024827,0.467278608,0.49096949,0.51525483,0.538403707,0.560748317,0.583040476,0.60458082,0.625526707,0.64718944,0.67018096,0.691668852,0.713156744,0.734032695,0.755782848,0.775487368,0.795611505,0.81521112,0.834461054,0.852574526,0.870128508,0.886458607,0.897543492,0.903855232,0.911827957,0.926636944,0.943823761,0.959017397,0.970119766,0.976938544,0.981012326,0.98405455,0.986974386,0.989701897,0.991992307,0.994405105,0.995996154,0.998199143,1,1,0.99762217,0.99166011,0.983704869,0.974420841,0.963108663,0.951184544,0.937144855,0.922598129,0.906547775,0.889430894,0.870775417,0.852207361,0.832590261,0.811312178,0.787778652,0.765119329,0.740431856\nSRI-1053008-001.txt,CSc1ccc(cc1)-c1ccc(=O)n(CC(=O)N[C@@H](CC(C)C)C(O)=O)n1,0.768448299,0.753099314,0.736478816,0.718768448,0.700558558,0.681077154,0.660142591,0.638617683,0.616774897,0.594341765,0.573270969,0.55324463,0.534444394,0.517551428,0.501793742,0.487352981,0.47291222,0.459742973,0.446528314,0.43385859,0.421461332,0.410335589,0.399573135,0.389809727,0.380409609,0.371599837,0.363425821,0.354888516,0.347032378,0.339762045,0.333717815,0.329049544,0.32582989,0.325443894,0.32696517,0.330920485,0.337496027,0.345987921,0.356936561,0.370432769,0.386063303,0.403555697,0.423009854,0.444421234,0.467449253,0.491635257,0.517424277,0.543844512,0.571041279,0.599078153,0.62749194,0.655787657,0.684546569,0.713886744,0.742427683,0.77019663,0.796939285,0.823105218,0.847654512,0.871295581,0.893251896,0.913264611,0.932464466,0.949357432,0.964179647,0.977021934,0.987534626,0.994155579,0.998310703,1,0.998764815,0.995735888,0.990409155,0.983116116,0.974301803,0.962372281,0.947631806,0.929853322,0.909377412,0.885640979,0.860206167,0.832296444,0.804895327,0.776685891,0.748022342,0.719522274,0.690277462,0.660306071,0.629131284,0.597743063,0.565310386,0.533286408,0.502306889,0.472126606,0.444116979,0.418954634,0.396834839,0.377448799,0.361241542,0.347745334,0.336710413,0.328064121,0.320989056,0.315094682,0.310530857,0.30697516,0.303419463,0.300422324,0.297761228,0.294882158,0.291880478,0.289064983,0.285931611,0.28215794,0.27838427,0.274324508,0.269928704,0.265324009,0.26066482,0.255201853,0.249770673,0.243849053,0.237677671,0.231329186,0.224544753,0.217374325,0.210140321,0.20275646,0.195517915,0.188297534,0.18142682,0.174501612,0.167158621,0.159865583,0.152549839,0.1452568,0.138122701,0.130952273,0.12376368,0.116806685,0.110253849,0.10344671,0.097007402,0.090799691,0.084637392,0.079060896,0.075300849,0.073116571,0.070078561,0.06411153,0.057163617,0.050806049,0.046051496,0.042809137,0.040479542,0.03852232,0.03653785,0.034498887,0.032300985,0.029921439,0.027323918,0.024340402,0.020943645,0.017283502,0.013691476,0.010925934,0.009114028,0.007983289,0.006575542,0.00559466,0.004872622,0.004018891,0.003337723,0.002570274,0.002134326,0.001616639,0.00117615,0.000899142,0.000494982,0.000236138,0\nSRI-1053160-001.txt,Cc1ccc(cc1)S(=O)(=O)NC(=O)NC(C)(C)Cc1ccccc1,0.933666564,0.928306286,0.929646356,0.939026842,0.951087466,0.967168299,0.983249132,0.992629618,1,0.999463972,0.99209359,0.976146764,0.950819452,0.91852378,0.87818769,0.828873136,0.774064297,0.714163194,0.651045924,0.586186564,0.520791177,0.457405894,0.396566742,0.340283827,0.290567251,0.246612975,0.209225038,0.178537448,0.153210136,0.132841081,0.116974659,0.105262453,0.096793214,0.090615494,0.085174812,0.081047398,0.079117698,0.078059043,0.076357155,0.073636814,0.070702062,0.068249735,0.066306635,0.066119025,0.066641652,0.065154175,0.062621444,0.059365075,0.056457124,0.054219209,0.05155247,0.047425057,0.044088284,0.04112673,0.040108278,0.039532048,0.037950766,0.034680996,0.030231966,0.026694183,0.024215054,0.022151347,0.021655522,0.020838079,0.020931884,0.020918484,0.021253501,0.0212401,0.021441111,0.021896734,0.021910135,0.021735926,0.021668922,0.022178149,0.021936936,0.021869933,0.022486365,0.022084344,0.021092693,0.021146295,0.020958686,0.020208247,0.019551613,0.019404205,0.018586763,0.017715718,0.016670464,0.015276791,0.014352143,0.013775914,0.01255645,0.011377189,0.01139059,0.009916514,0.009889712,0.009608298,0.008924862,0.007946612,0.007423985,0.006432333,0.005467483,0.004542835,0.003350174,0.003001755,0.002867749,0.002385324,0.000790641,0.001634885,0.000884446,0.000884446,0.000737038,0.000308216,0.000670035,0.001058655,0.000214411,0.000589631,0.000482425,0.00077724,0.000227812,0.000482425,0.000442223,0.000696836,0.000455624,0.00057623,0.000442223,0.000817442,0.000268014,1.34E-05,0.000710237,0.000844244,0.000643233,0.001058655,0.001031853,0.000455624,0.000335017,0.000616432,0.001179261,0.000469024,0,0.000495826,0.000750439,0.00038862,0.000710237,0.00096485,0.00077724,0.000737038,0.000737038,0.000603031,0.000442223,0.000402021,0.000294815,0.000214411,0.000147408,0.000147408,0.000120606,9.38E-05,5.36E-05,4.02E-05,8.04E-05,8.04E-05,8.04E-05,9.38E-05,5.36E-05,6.7E-05,0.000254613,0.000428822,0.000790641,0.001031853,0.000629833,0.000737038,0.000603031,0.000830843,0.000147408,0.000750439,0.000241212,0.000402021,0.000616432,0.000495826,0.000562829,0.000804042,0.000911247\nSRI-0000678.txt,CN1C2CCC1CN(CC1=CC=CC=C1)C2,1,0.847014925,0.712686567,0.607587065,0.524875622,0.449626866,0.390547264,0.34079602,0.299751244,0.263059701,0.230099502,0.198383085,0.166044776,0.144278607,0.122512438,0.111318408,0.100746269,0.09079602,0.086442786,0.077114428,0.072761194,0.070895522,0.06840796,0.063743781,0.062126866,0.061629353,0.060447761,0.061069652,0.062997512,0.062437811,0.064614428,0.066169154,0.066977612,0.069465174,0.070211443,0.072450249,0.074191542,0.076243781,0.078669154,0.080534826,0.078109453,0.075559701,0.07108209,0.073818408,0.071828358,0.067226368,0.061753731,0.052922886,0.048880597,0.047263682,0.040236318,0.032462687,0.022823383,0.018283582,0.012562189,0.007462687,0.006156716,0.002798507,0.002549751,0.002487562,0.003420398,0.004975124,0.002487562,0.003171642,0.001243781,0,0.002425373,0,0.000808458,0.000995025,0.001181592,0.003109453,0.001119403,0.001865672,0.00068408,0.000746269,0.001865672,0.000373134,0.001616915,0.000186567,0.001927861,0.002238806,0.001616915,0.00261194,0.003669154,0.001368159,0.001741294,0.000435323,0.000932836,0.000310945,0.002798507,0.003233831,0.004415423,0.00329602,0.004975124,0.002860697,0.001679104,0.004477612,0.004912935,0.002114428,0.004477612,0.003606965,0.005597015,0.006405473,0.004228856,0.005597015,0.004291045,0.007089552,0.007027363,0.007524876,0.00988806,0.006343284,0.008644279,0.011504975,0.00920398,0.006467662,0.011567164,0.014614428,0.011567164,0.015422886,0.017226368,0.013121891,0.015982587,0.016542289,0.021579602,0.018656716,0.015236318,0.021952736,0.022014925,0.027922886,0.025746269,0.029042289,0.029477612,0.031281095,0.030783582,0.033768657,0.035696517,0.036256219,0.041231343,0.042039801,0.042412935,0.043097015,0.043345771,0.044340796,0.048880597,0.051865672,0.052922886,0.053358209,0.053855721,0.055597015,0.058022388,0.060136816,0.061753731,0.062810945,0.063432836,0.063868159,0.064303483,0.064738806,0.065174129,0.06579602,0.066355721,0.06710199,0.067972637,0.068905473,0.069962687,0.070584577,0.069776119,0.071517413,0.073631841,0.070584577,0.070273632,0.070584577,0.070460199,0.065733831,0.068594527,0.068159204,0.065920398,0.063743781,0.062313433,0.061629353,0.061442786\nSRI-1053018-001.txt,Cn1nnc(n1)-c1ccc(OCC(=O)NCC2(CC(O)=O)CCCCC2)cc1,0.239942091,0.228715839,0.224296454,0.226887128,0.233643198,0.244767855,0.260057909,0.278395814,0.299476786,0.323605608,0.350325104,0.378060551,0.407726303,0.439423956,0.471578787,0.505867114,0.541222188,0.576983643,0.612999086,0.649420908,0.685487148,0.721197806,0.75594331,0.789977649,0.822843645,0.853931728,0.883140303,0.909961394,0.933988621,0.954729249,0.972269633,0.985070609,0.994082089,0.999354871,1,0.997175658,0.989408717,0.977710048,0.960946866,0.939464594,0.914020116,0.883414609,0.848496393,0.809260388,0.767606421,0.723290663,0.676968404,0.629823225,0.580595347,0.530265163,0.480768059,0.433704155,0.389794778,0.350081276,0.314675404,0.282236107,0.25306817,0.226887128,0.204363507,0.185634461,0.169724677,0.156232856,0.144132886,0.132215788,0.120755867,0.109326425,0.097983338,0.08729046,0.077918318,0.069897389,0.063512141,0.057594229,0.052798943,0.047968099,0.042481967,0.036833283,0.031342071,0.026805852,0.023224627,0.02070507,0.018485218,0.016930814,0.015904704,0.014817637,0.013786447,0.013039724,0.012450472,0.011739307,0.011119577,0.010631921,0.010017271,0.009387382,0.008833689,0.008325714,0.007731383,0.007426598,0.006847506,0.006491923,0.006491923,0.005887433,0.005851874,0.005714721,0.005663924,0.005516611,0.005354059,0.005221985,0.00533374,0.005445494,0.005288022,0.005303261,0.005384537,0.005399776,0.005267703,0.00533374,0.005013715,0.004744488,0.004907041,0.004759728,0.004546378,0.004526059,0.004333029,0.004637814,0.004256832,0.003809814,0.003977446,0.004043483,0.003759017,0.003357716,0.003642182,0.003459311,0.003388195,0.003027532,0.002804023,0.002834502,0.002448441,0.002651631,0.002412882,0.00225541,0.002377324,0.002067459,0.001828711,0.001747435,0.001782993,0.001422331,0.001300417,0.001244539,0.001198821,0.001097226,0.000960073,0.000787362,0.000634969,0.000502895,0.000421619,0.000380981,0.000370822,0.000375902,0.000365742,0.000355583,0.000335264,0.000309865,0.000279386,0.000248908,0.00019811,0.000193031,0.000233669,0.000218429,0.000162552,0.00020827,4.06E-05,0,4.06E-05,5.08E-05,0.000243828,6.1E-05,5.59E-05,7.62E-05,0.000121914,9.14E-05,3.56E-05,5.08E-05,5.08E-06\nSRI-0000693.txt,ClC1=CC(=CC(Cl)=C1)N1CCNCC1,1,0.961566718,0.909489372,0.8432182,0.768900528,0.690134791,0.609819728,0.532353426,0.46188408,0.398861495,0.344884975,0.30195365,0.267468651,0.242029717,0.224487348,0.21409187,0.209044066,0.209194001,0.21324224,0.220888913,0.23133437,0.243828934,0.258372608,0.27466552,0.292187898,0.311049693,0.330106404,0.349712875,0.36930935,0.388605956,0.407532723,0.425454927,0.441387996,0.455062048,0.465717413,0.472729363,0.47666765,0.477347354,0.474203721,0.466716978,0.455336928,0.44002359,0.419832373,0.396227641,0.369299355,0.339727219,0.308710711,0.27684957,0.245568178,0.21531134,0.187138595,0.161899574,0.139559292,0.119982807,0.10388481,0.090580597,0.079785293,0.07137895,0.065076692,0.060453703,0.057155138,0.055041057,0.053311809,0.052926977,0.05271207,0.052966959,0.053311809,0.054166438,0.055051053,0.056005638,0.056700335,0.057739883,0.058739448,0.059374172,0.060188818,0.060813546,0.061238361,0.060833537,0.06080355,0.060508679,0.060193816,0.059214242,0.058089731,0.056935233,0.055290948,0.053421762,0.05133267,0.049223588,0.046869612,0.044605597,0.041851794,0.039492821,0.036654055,0.033805295,0.031016508,0.028682523,0.026093649,0.023754667,0.02135571,0.019166663,0.016957623,0.014793565,0.0128744,0.011534982,0.009920685,0.008386352,0.007211863,0.005777487,0.004912863,0.004198174,0.003223598,0.002538896,0.002259017,0.001779226,0.001364406,0.001024554,0.001089526,0.000904606,0.000809648,0.000539765,0.000419817,0.00038983,0.000749674,0.000659713,0.000409822,0.000609735,0.00052977,0.000419817,0.000334854,0.000319861,0.000419817,0.000634724,0.000649717,0.000314863,0.000124946,0.000234898,0,0.000189917,0.000564754,0.000359843,0.000269883,0.000284876,0.000304867,0.000494785,0.00041482,0.000464798,0.000489787,0.000474793,0.000434811,0.000369839,0.000289874,0.000234898,0.000204911,0.00018492,0.000169926,0.000169926,0.000174924,0.000189917,0.000189917,0.000194915,0.000194915,0.000204911,0.000214907,0.0002299,0.000264885,0.000289874,0.000319861,0.000129943,0.000349848,0.000424815,0.000289874,0.000339852,0.000214907,0.000269883,0.000279878,0.00027488,0.000244893,0.000269883,0.000244893,0.000259887,0.000359843\nSRI-1053216-001.txt,O\\N=C\\c1c(Sc2ccc(Cl)cc2)nc2ccccn2c1=O,0.998562516,1,0.997843774,0.989218871,0.975562775,0.958312969,0.938188195,0.91734468,0.897219906,0.881407584,0.865451514,0.851723543,0.837348705,0.823620734,0.809245896,0.795374177,0.7822212,0.77021821,0.760083949,0.75066843,0.742187275,0.734281114,0.72752494,0.721128137,0.714946957,0.708693902,0.703159589,0.697697151,0.691947216,0.686053532,0.679520168,0.673913981,0.667244056,0.662198488,0.656053244,0.650878303,0.646062732,0.641642469,0.637883449,0.634735359,0.632952879,0.633290688,0.634390363,0.637279706,0.641958715,0.647780525,0.655586062,0.663952218,0.67266337,0.682280137,0.690143173,0.696575914,0.699824627,0.701010551,0.703116465,0.70285053,0.702031165,0.70065118,0.698401518,0.696353104,0.694340626,0.692119714,0.691487221,0.692069402,0.694117816,0.6966981,0.701448984,0.708665153,0.716592876,0.72579996,0.736049219,0.745364115,0.754492137,0.762139551,0.76818417,0.773545985,0.77801656,0.781373085,0.784808671,0.787079895,0.787748325,0.786224592,0.783421499,0.775429089,0.763878906,0.747757525,0.727496191,0.701549608,0.672512434,0.639903114,0.60446195,0.567741425,0.529331858,0.49089354,0.453253026,0.416510939,0.381156024,0.347224219,0.315743323,0.28626053,0.259350832,0.234647673,0.212316361,0.192558146,0.175229279,0.16021476,0.147996148,0.137308455,0.128956674,0.122818618,0.117852112,0.115092143,0.113891844,0.113934968,0.115746198,0.118391168,0.12248081,0.127835437,0.134045367,0.141017164,0.149340195,0.158547279,0.168077797,0.178995486,0.190631918,0.203044591,0.216305379,0.229932726,0.243926631,0.258258345,0.272180375,0.286583963,0.302058477,0.317806112,0.333568122,0.349624817,0.365307765,0.380573844,0.395286491,0.409905701,0.423712733,0.436951959,0.449472443,0.461410747,0.473061553,0.483432999,0.490591668,0.49465256,0.499058448,0.507561165,0.51598482,0.523272863,0.528059684,0.529604979,0.529245608,0.527556565,0.525853147,0.522661933,0.51799011,0.511823304,0.502745594,0.493516948,0.480917402,0.463042291,0.43956818,0.41308254,0.386862835,0.360535319,0.333855619,0.306018745,0.277448754,0.248102521,0.218116609,0.188597878,0.159222896,0.130760716,0.10267947,0.074813846,0.048385706,0.02378317,0\nSRI-1053206-001.txt,OC(=O)CC[C@H](NC(=O)Cn1nnc2ccccc2c1=O)C(O)=O,0.974522707,0.980377064,0.988020252,0.994850334,0.999132688,1,0.995717647,0.984767831,0.968234695,0.945359338,0.919177354,0.890230813,0.856785091,0.817864461,0.770487538,0.71541322,0.652804128,0.587809929,0.524712974,0.466332029,0.416190548,0.37457583,0.340745238,0.314026605,0.293064756,0.27630937,0.262725095,0.250745346,0.2397088,0.229165537,0.219332387,0.210052147,0.201498282,0.194039398,0.187431564,0.181463372,0.175571071,0.169781763,0.163808151,0.15784538,0.1525873,0.148201954,0.145394031,0.144418305,0.145610859,0.148304947,0.152668611,0.158474181,0.165125381,0.172741465,0.181306172,0.189702837,0.198668676,0.207650777,0.216746712,0.225918538,0.234857273,0.243665911,0.252512495,0.260930843,0.2686445,0.275284858,0.281556608,0.286429818,0.29008337,0.292658203,0.294089268,0.294506662,0.293986275,0.292701569,0.290560392,0.287779573,0.284234434,0.280423682,0.276097963,0.271956548,0.267825974,0.264172422,0.26114225,0.258253017,0.25572697,0.252702219,0.249254654,0.24450612,0.238201845,0.230477347,0.221652446,0.212177062,0.202777567,0.193697894,0.185512636,0.178807229,0.174259261,0.171668166,0.169537831,0.166843743,0.162545127,0.155308492,0.144678498,0.131473672,0.116165613,0.100451002,0.084996585,0.070669673,0.058511042,0.047696744,0.038416505,0.030957621,0.025184575,0.020289682,0.016728282,0.013649324,0.011047388,0.009014625,0.007746181,0.006515682,0.005404438,0.00440703,0.003740283,0.003382517,0.002683247,0.002536888,0.002189963,0.001664155,0.001561162,0.001441906,0.001225078,0.001170871,0.000959464,0.000753477,0.000780581,0.000639643,0.000818526,0.000514967,0.000498704,0.000666746,0.000596277,0.000346925,0.000411973,0.000411973,0.000531229,0.00046076,0.000428235,0.000498704,0.00030898,0.000352346,0.000379449,0.000341504,0.000281876,0.000184304,0.000119255,9.22E-05,5.96E-05,2.17E-05,0,5.42E-06,1.08E-05,1.63E-05,2.71E-05,3.79E-05,5.96E-05,8.13E-05,9.76E-05,0.000124676,0.00015178,0.000178883,0.000205987,0.000298139,0.00023309,6.5E-05,0.000119255,0.000222249,0.000178883,0.000146359,0.000325242,0.000130097,0.000238511,0.000276456,0.000130097,0.00030898,0.000189725\nSRI-0000687.txt,CC1=CC(=CC=C1)N1CCNCC1,0.793632453,0.736214314,0.695328332,0.66688591,0.650709283,0.642532087,0.645020799,0.655153411,0.670796743,0.690528674,0.715060262,0.741369503,0.768745334,0.797721051,0.826874533,0.856916841,0.885537028,0.911846269,0.936555623,0.957887439,0.974775127,0.987805312,0.996053614,1,0.998613432,0.992053898,0.979663668,0.962047143,0.939506524,0.911864045,0.879706332,0.843406691,0.8032851,0.759519323,0.713958119,0.666245956,0.617271661,0.569061756,0.520158567,0.472304192,0.426191915,0.384079354,0.343584456,0.306929285,0.273562769,0.244498169,0.219433285,0.198048139,0.180200519,0.16658371,0.155224517,0.147100651,0.141021083,0.136612508,0.133554947,0.132221709,0.132203932,0.131617307,0.131670637,0.132150603,0.132221709,0.132399474,0.131848402,0.131866178,0.130728482,0.128168664,0.125946599,0.123262346,0.120133679,0.116027305,0.1115654,0.107067942,0.101041704,0.096810893,0.090997973,0.085220607,0.080083194,0.074679134,0.068688449,0.062982188,0.057809222,0.052298503,0.048138799,0.042788068,0.03834394,0.034326448,0.030717816,0.027429161,0.023856081,0.020283002,0.018345362,0.016194404,0.013474597,0.011465851,0.009705976,0.008692715,0.00698617,0.006097344,0.005315178,0.004764106,0.004124151,0.003768621,0.003324208,0.003235325,0.002204288,0.002204288,0.002542041,0.001706545,0.002044299,0.002399829,0.001457674,0.001475451,0.000888826,0.000746614,0.001368792,0.001813204,0.001155473,0.001102144,0.000924379,0.001208803,0.000942155,0.001404345,0.001368792,0.001439898,0.00158211,0.001368792,0.001084367,0.001191026,0.000924379,0.000924379,0.000142212,0.000871049,0.001973193,0.001422121,0.001404345,0.000604401,0.00117325,0.001013261,0.00081772,0.001048814,3.56E-05,0.000693284,0.001706545,0.000924379,0.00076439,0.000515519,0.000426636,0.000479966,0.000568848,0.000622178,0.000622178,0.000604401,0.000551072,0.000479966,0.000462189,0.000444413,0.000426636,0.00040886,0.000391083,0.000391083,0.00040886,0.00040886,0.00040886,0.000515519,0.000728837,0.000888826,0.000693284,0.000266648,0.000746614,0.000906602,0.001208803,0.00081772,0.000391083,0,0.001262132,0.000888826,0.000533295,0.001102144,8.89E-05,0.000711061,0.000906602\nSRI-1053274-001.txt,O=C(CCn1nnc2ccccc2c1=O)NCc1ccccn1,0.975092874,0.979905437,0.985984465,0.991979061,0.997635934,1,0.99729821,0.989614995,0.975008443,0.955082742,0.931357649,0.905437352,0.875042215,0.838736913,0.79601486,0.744343127,0.685832489,0.624586288,0.564994934,0.509836204,0.463053023,0.424924012,0.395187437,0.373311381,0.358400878,0.348750422,0.342840257,0.340214455,0.339809186,0.340535292,0.342080378,0.345052347,0.34975515,0.355901722,0.363171226,0.371631206,0.380639986,0.388635596,0.396048632,0.402262749,0.408274232,0.41348362,0.417933131,0.421715637,0.423682877,0.423767308,0.422087133,0.418709895,0.413787572,0.408156028,0.400481256,0.390298886,0.376815265,0.360612969,0.343473489,0.326688619,0.312208713,0.300911854,0.293287741,0.288407633,0.286203985,0.286043566,0.287208713,0.288610267,0.29003715,0.29047619,0.290704154,0.29118541,0.290552178,0.288821344,0.287006079,0.283958122,0.280775076,0.276933468,0.272948328,0.269056062,0.264817629,0.26138129,0.258485309,0.255724417,0.25327592,0.250320838,0.246876055,0.242215468,0.236499493,0.229652145,0.221192165,0.211659912,0.2025667,0.193363728,0.185216143,0.17830125,0.1734718,0.17008612,0.167983789,0.165450861,0.16116177,0.154956096,0.145178994,0.13261567,0.117789598,0.102879095,0.087757514,0.07311719,0.06080716,0.04975515,0.040746369,0.033367106,0.026874367,0.021859169,0.018059777,0.015003377,0.012360689,0.010216143,0.008519081,0.007227288,0.006264775,0.005336035,0.00480412,0.003562985,0.003529213,0.003664303,0.003031071,0.002558257,0.002769335,0.002406282,0.001925025,0.00234718,0.002228977,0.001899696,0.001705505,0.001730834,0.00163796,0.001426883,0.00141844,0.001705505,0.001789936,0.001080716,0.00130868,0.001156704,0.001046944,0.001030057,0.000641675,0.000911854,0.000734549,0.000734549,0.000844309,0.000827423,0.000616346,0.00035461,0.000143533,2.53E-05,0,3.38E-05,0.000118203,0.000211077,0.000312394,0.000396825,0.000481256,0.000557244,0.000616346,0.000692334,0.000734549,0.000717663,0.000650118,0.000633232,0.000768322,0.001021614,0.000565687,0.000506586,0.000548801,0.000236407,0.00021952,0.000405268,0.000540358,0.000633232,0.000692334,0.000540358,0.000498143,0.000295508,0.000911854\nSRI-1053264-001.txt,CCCC(NS(=O)(=O)c1ccc(NC(C)=O)cc1)C(O)=O,0.18387142,0.165062579,0.153557172,0.147504327,0.145503387,0.146653927,0.150655808,0.1568087,0.164662391,0.173866717,0.184271608,0.196327274,0.210333857,0.22534091,0.241448481,0.259006733,0.277865597,0.298825448,0.321386051,0.345747501,0.372009845,0.400173081,0.429787,0.462052165,0.494867588,0.52955389,0.564650386,0.601522716,0.638810241,0.676232829,0.713705442,0.750217602,0.785789321,0.820555661,0.852775805,0.883300151,0.911458385,0.935584725,0.956814703,0.973627605,0.987274019,0.995417846,1,0.99967985,0.992626534,0.980115654,0.960586476,0.935964904,0.906816204,0.874235891,0.840530049,0.804868288,0.768571228,0.731994037,0.69636229,0.660880614,0.626289356,0.590232409,0.551779336,0.510344862,0.464308225,0.416200614,0.366342181,0.316668834,0.269516673,0.225450962,0.185462167,0.149955479,0.11885086,0.092908667,0.072198933,0.055741198,0.043260332,0.03410603,0.027632988,0.023040829,0.019409122,0.016742869,0.014992046,0.013211209,0.012330795,0.011180255,0.010444909,0.010109752,0.00931938,0.008473983,0.007903715,0.007498524,0.006863226,0.006408012,0.006252939,0.005907777,0.005682671,0.005642652,0.00555261,0.005402539,0.005242464,0.004857283,0.004412074,0.003736756,0.003096455,0.002961392,0.002541194,0.002050964,0.00134063,0.001060498,0.000825388,0.000870409,0.000600282,0.000590277,0.000695327,0.000655308,0.000695327,0.0008504,0.000705332,0.000505237,0.000430202,0.000445209,0.000655308,0.000560263,0.000480226,0.00076536,0.000875411,0.000845397,0.001010475,0.000730343,0.000415195,0.000665313,0.000980461,0.000690324,0.000835393,0.000985463,0.000735346,0.000720339,0.000395186,0.00066031,0.000665313,0.000385181,0.000525247,0.000360169,0.000290136,0.000545256,0.000300141,0.000445209,0.000435205,0.000475223,0.00051024,0.000475223,0.000390183,0.000270127,0.000165078,0.000135063,0.000115054,0.000100047,0.000100047,0.000125059,0.000160075,0.000195092,0.000220103,0.000245115,0.000265125,0.000280132,0.000280132,0.000240113,0.000180085,0.000165078,0.000295139,0.000365172,0.000215101,0.000160075,0.000175082,0.000110052,0.000165078,0,0.000325153,0.00032015,0.000350165,0.000260122,5E-05,0.000250118,0.000335158\nSRI-0000724.txt,CN1C(=O)C(=O)C2=CC=CC=C12,0.285721232,0.271266532,0.260215539,0.254734246,0.253850166,0.257651708,0.267420786,0.282538546,0.303093394,0.328201252,0.358127343,0.392252811,0.430666065,0.47274825,0.517703692,0.564736721,0.613891541,0.663311585,0.714013544,0.764096648,0.812897836,0.858251114,0.899758646,0.936934189,0.967965379,0.99121225,1,0.989116981,0.961233114,0.926731912,0.894803381,0.867233362,0.829103013,0.760436558,0.655827852,0.529603402,0.404280713,0.298160231,0.215167268,0.15480232,0.112463753,0.083377537,0.064082502,0.050896457,0.041914209,0.035783118,0.031636785,0.028887298,0.027158922,0.026159912,0.025633885,0.025558738,0.025726713,0.025925631,0.026606372,0.027698211,0.028927081,0.030372551,0.032233538,0.034240399,0.036724662,0.039040951,0.042011458,0.04492892,0.047978994,0.0513827,0.054896916,0.058486279,0.062035858,0.065939069,0.069926268,0.073886944,0.077657543,0.081370677,0.085441863,0.088995863,0.092284638,0.095834217,0.099047846,0.101929946,0.104135724,0.106443171,0.108304159,0.109692164,0.110744218,0.111327711,0.111663661,0.111460323,0.1107619,0.109515348,0.107946107,0.10587294,0.103605276,0.100683393,0.09753165,0.094225193,0.090454594,0.086555803,0.082453674,0.078006754,0.073670344,0.069236686,0.064710199,0.059790296,0.055449466,0.050741743,0.04637439,0.042338567,0.038161291,0.034050322,0.03035929,0.02691138,0.023445788,0.020285204,0.017500354,0.015055874,0.012717484,0.010591272,0.008867317,0.007143362,0.00577746,0.004827074,0.00366893,0.002692022,0.001900771,0.001228871,0.001100679,0.000844296,0.000503925,0.000282905,0.000194497,0.000260803,0.000172396,0,0.00011493,0.000477403,0.000366893,0.000433199,0.000822194,0.001021112,0.001034373,0.001304017,0.001573662,0.001715114,0.001869828,0.002236721,0.002471002,0.002594773,0.002758328,0.003085437,0.003474432,0.003854587,0.004155174,0.004371773,0.004539748,0.004694462,0.004866858,0.005061355,0.005277955,0.005529917,0.005812823,0.006148773,0.006546609,0.007019591,0.007536778,0.008040703,0.008420857,0.008743546,0.009269574,0.009548059,0.009583422,0.009963576,0.010162494,0.010471922,0.010860917,0.011218969,0.011466511,0.011585862,0.011806882,0.012187036,0.012355011\nSRI-1053112-001.txt,COC(=O)[C@H](CC(C)C)NC(=O)CCCn1nnc2ccccc2c1=O,0.996384109,0.996804561,0.998192054,0.999411367,1,0.996846606,0.989320507,0.975697846,0.955684307,0.931087837,0.902581158,0.871635855,0.837200795,0.796711221,0.749115999,0.693237863,0.631935889,0.568825971,0.508785355,0.454546983,0.408255164,0.370666712,0.340604358,0.316848793,0.2986432,0.284011453,0.272112648,0.261601335,0.251531498,0.241524729,0.232009889,0.223176182,0.215170767,0.207779212,0.20133788,0.195026888,0.18855192,0.181513545,0.174180853,0.16695748,0.16018399,0.154823221,0.15142176,0.150173016,0.150913013,0.153839362,0.158569452,0.164859422,0.172187909,0.180458209,0.189678732,0.199492093,0.209582953,0.219812562,0.229882399,0.240221326,0.25067798,0.260928611,0.270939585,0.280580561,0.289771652,0.298172293,0.305719415,0.312341542,0.317929356,0.322381947,0.325611023,0.327654422,0.328655099,0.328642485,0.327212947,0.325186366,0.322285243,0.318034469,0.313598695,0.308586901,0.303861015,0.299589218,0.29580935,0.292601298,0.289956651,0.287211097,0.283851681,0.279180454,0.272924121,0.265128932,0.255710796,0.245367665,0.234726012,0.224824356,0.215868718,0.208405686,0.202641283,0.19934914,0.197238468,0.195359045,0.192079516,0.185739092,0.175648233,0.161769096,0.145056109,0.127128015,0.109002308,0.091810006,0.076265877,0.062718898,0.051349863,0.041910704,0.033976766,0.027817137,0.022696025,0.018781613,0.01548947,0.01274812,0.01084347,0.008867343,0.007345305,0.006222697,0.005196793,0.004309638,0.003674755,0.003048281,0.002690896,0.00221158,0.001992945,0.001690219,0.001408516,0.00128238,0.00110579,0.000988063,0.000727383,0.000601247,0.000605452,0.000487725,0.00052977,0.000655906,0.000517157,0.000441475,0.000302726,0.00039943,0.000378407,0.00030693,0.000344771,0.000441475,0.000386816,0.000235453,0.000218635,0.000193408,0.000227044,0.000214431,0.000193408,0.000184999,0.000184999,0.00017659,0.000172386,0.000168181,0.000159772,0.000155567,0.000142954,0.00013034,0.000117727,0.000109318,8.83E-05,6.73E-05,6.31E-05,9.25E-05,0.00013034,0.000193408,0.000168181,0.000142954,8.41E-05,0.000332157,0.000311135,0.000197613,0.000248067,0.00022284,0.000260681,0.000155567,0.000239658,0.000100909,0\nSRI-0000095.txt,CC(N)CSCC1=CC=CC=C1,1,0.897688887,0.797807966,0.698656103,0.608738973,0.525626382,0.453935697,0.394882014,0.34627816,0.307638096,0.277260687,0.254173856,0.235218353,0.219665119,0.207271137,0.197307346,0.188315633,0.180295997,0.171547304,0.163284648,0.155508032,0.147488396,0.139395854,0.131327614,0.124523075,0.117329704,0.110282145,0.103331794,0.097718049,0.091350944,0.086369049,0.082820968,0.07856813,0.075068653,0.072565554,0.069503512,0.066368563,0.063986974,0.061362366,0.059199495,0.057060925,0.057571265,0.056234659,0.05271088,0.049065591,0.046513889,0.0441323,0.041604899,0.039271914,0.036379985,0.033390848,0.029818465,0.025614231,0.022868113,0.018056332,0.016185083,0.013973608,0.01185934,0.009769375,0.009040317,0.008724392,0.008627184,0.007630805,0.006998955,0.005565141,0.006877445,0.006610124,0.006391407,0.006658728,0.006537218,0.006440011,0.007509295,0.006415709,0.006537218,0.00668303,0.005808161,0.005638047,0.006269897,0.005881066,0.005662349,0.00466597,0.005103405,0.005735255,0.00592967,0.005467934,0.004568762,0.003961214,0.005030499,0.004398649,0.004082724,0.004107026,0.004520158,0.005152009,0.004933291,0.004520158,0.004738876,0.003888308,0.004277139,0.003450874,0.002843325,0.003353666,0.003329364,0.003037741,0.00277042,0.003693893,0.003013439,0.003110647,0.002430193,0.002478797,0.002551702,0.003936912,0.003086345,0.001312304,0.001774041,0.001774041,0.001117889,0.002746118,0.002357287,0.00138521,0.001482418,0.001482418,0.00213857,0.002089966,0.002114268,0.001676833,0.003013439,0.003669591,0.003377968,0.004009818,0.003936912,0.00403412,0.004107026,0.003791101,0.00478748,0.003596685,0.004568762,0.004714574,0.003377968,0.003864006,0.004350045,0.004228535,0.00541933,0.004252837,0.003523779,0.004252837,0.004447253,0.004471555,0.004495857,0.004520158,0.004422951,0.004374347,0.004350045,0.004350045,0.004350045,0.004350045,0.004350045,0.004398649,0.004398649,0.004374347,0.004325743,0.004277139,0.004204233,0.004107026,0.003961214,0.003718195,0.003426572,0.002697514,0.001798343,0.001215096,0.00075336,0.001482418,0.0012637,0.001482418,0.001579625,0.001142191,0.001944154,0.000680454,0.00213857,0.00063185,0,0.000315925\nSRI-1053102-001.txt,CC(C)C(NS(=O)(=O)c1ccc2N(C)C(=O)c3cccc1c23)C(O)=O,0.312772534,0.271788928,0.239222829,0.214591268,0.196514324,0.183267097,0.175470553,0.172227742,0.172020754,0.174642601,0.180093283,0.187406855,0.197204283,0.208381631,0.222318817,0.23784291,0.255298891,0.274962742,0.296558481,0.320362091,0.345683612,0.373144008,0.402467296,0.433653475,0.466081581,0.500441574,0.535905503,0.572818347,0.610690236,0.648720815,0.687061876,0.724906165,0.762550367,0.798759452,0.833367831,0.866051223,0.896043771,0.92260032,0.946976597,0.966681846,0.982095546,0.992417343,0.99897886,1,0.995128884,0.984793288,0.967309709,0.944023569,0.916645968,0.884804327,0.851451675,0.815980847,0.779751063,0.742624331,0.706291053,0.67037865,0.634887123,0.599036816,0.561220125,0.520691892,0.47637578,0.429348126,0.380354087,0.331173759,0.283697632,0.238249986,0.196817906,0.159387592,0.126655903,0.098367555,0.07517801,0.056942375,0.04263951,0.031641552,0.023782911,0.018194237,0.013833692,0.010839267,0.008859083,0.0068513,0.005457581,0.00445714,0.003843076,0.003125517,0.00273914,0.002297566,0.001980184,0.002014682,0.001566209,0.001435116,0.001131534,0.001207429,0.001145333,0.000986642,0.000786554,0.000807253,0.000724458,0.000814152,0.000496771,0.000593365,0.000489871,0.000565767,0.000669261,0.000441574,0.000703759,0.000634763,0.000255285,0.000282883,0.000420875,0.000241486,0.000420875,0.000834851,0.000545068,0.00051747,0.000489871,0.000641663,0.000565767,0.000282883,0.000786554,0.000365679,0.000441574,0.000745156,0.000593365,0.000220787,0.000124193,0.000545068,0.000607165,0.00034498,0.000310482,0.000476072,0.000441574,0.000372578,0.000524369,0.000400177,0.000303582,0.000289783,0.000579566,0.000455373,0.000358779,0.000441574,0.00051057,0.00033808,0.000220787,0.000241486,0.000275984,0.000227687,0.000186289,0.000117293,0.000124193,0.000117293,0.000110394,0.000103494,9.66E-05,0.000110394,9.66E-05,9.66E-05,0.000103494,0.000110394,0.000103494,0.000103494,9.66E-05,9.66E-05,0.000103494,0.000124193,0.00017249,0.000158691,0.000227687,0.000434675,0.000262185,0.000241486,0.000351879,0.00017249,0.000289783,0.000220787,0.000351879,0.000117293,0.000151791,0.000441574,0.000234586,3.45E-05,0\nSRI-0000283.txt,CSC(=S)NNC(=O)C1=C(Cl)C=C(Cl)C=C1,1,0.95310197,0.916253517,0.886104784,0.85595605,0.829157175,0.80570816,0.785609004,0.765509849,0.752110411,0.740385904,0.728661396,0.72095672,0.717606861,0.716936889,0.719616776,0.723636607,0.731006298,0.739715932,0.750770468,0.764169905,0.777904328,0.790298807,0.802358301,0.81475278,0.824132386,0.831167091,0.83451695,0.833511992,0.829157175,0.819375586,0.805607664,0.788188396,0.766950288,0.742295324,0.717439368,0.691176471,0.66380812,0.640359105,0.619087498,0.600629774,0.585220421,0.574902854,0.570079057,0.571251507,0.576175801,0.583846978,0.595671982,0.611717808,0.631213989,0.652921077,0.676973067,0.702800482,0.727220957,0.749832507,0.771941578,0.790901782,0.808656036,0.823998392,0.839508241,0.847514404,0.847313413,0.844265041,0.834248962,0.819375586,0.79904194,0.775157443,0.747990084,0.717338872,0.684510251,0.646388852,0.608032963,0.567834651,0.528775291,0.487270535,0.44476082,0.403457055,0.366508107,0.331803564,0.297467506,0.266514806,0.238107999,0.212247086,0.190406003,0.167492965,0.149303229,0.133759882,0.120494439,0.10856894,0.097246416,0.087196838,0.07929117,0.072691947,0.066494707,0.06120193,0.055641163,0.051252847,0.048438966,0.045524588,0.042040734,0.039226852,0.036010988,0.034135066,0.032661128,0.031053196,0.028875787,0.027736835,0.025760418,0.02475546,0.024152486,0.022343562,0.021506097,0.021472598,0.018725714,0.018357229,0.01808924,0.017352271,0.018189736,0.01617982,0.015878333,0.014605387,0.014370896,0.012695967,0.011691009,0.01118853,0.011389522,0.010217071,0.009614096,0.008676136,0.009915584,0.009212113,0.009614096,0.009681093,0.008240654,0.007805172,0.007838671,0.00690071,0.0071352,0.005996248,0.005661262,0.006398231,0.005895752,0.003651347,0.004455313,0.004120327,0.003885837,0.003517352,0.003182366,0.002981375,0.003048372,0.002914378,0.002679887,0.002478896,0.002277904,0.002177409,0.002110411,0.002043414,0.002009916,0.002043414,0.00214391,0.00214391,0.002210907,0.002311403,0.002210907,0.001942918,0.001708428,0.001406941,0.001641431,0.001942918,0.002110411,0.000569476,0.002512394,0,0.002009916,0.00144044,0.000770468,0.001339944,0.002277904,0.001306445,0.002043414,0.002076913\nSRI-1052973-001.txt,O=C(Nc1nc2ccccc2[nH]1)[C@H]1CC[C@H](Cn2nnc3ccccc3c2=O)CC1,0.887466601,0.901575877,0.917729974,0.935588091,0.952900922,0.969804788,0.983777741,0.994478979,1,0.999795518,0.994274497,0.983709581,0.967351001,0.946084847,0.916639402,0.878605704,0.834096734,0.78290801,0.728720214,0.672692077,0.620753585,0.57215497,0.525737499,0.481501172,0.439241507,0.39950379,0.364264682,0.332924369,0.306198539,0.283882709,0.265908719,0.251342767,0.240143956,0.231099024,0.224739626,0.22004335,0.216730738,0.215074432,0.214372376,0.215101696,0.216880691,0.219620754,0.224303397,0.231283058,0.240198484,0.251935765,0.266658487,0.284353018,0.304903484,0.327785048,0.35188669,0.375811113,0.399101641,0.421969573,0.446698293,0.474787338,0.506822891,0.540017177,0.57104395,0.597647091,0.617563662,0.628414854,0.628973772,0.621619227,0.614496428,0.616132286,0.631270789,0.654861225,0.670483669,0.663122308,0.62623371,0.568024429,0.502242489,0.441081847,0.388161841,0.343530182,0.306757457,0.276480451,0.252317466,0.233341513,0.219109548,0.207978897,0.199554229,0.192485959,0.185703964,0.178567534,0.171478816,0.163728938,0.156088118,0.14839277,0.141699384,0.135796663,0.131475271,0.1282649,0.126813076,0.125783849,0.124257048,0.121380664,0.116016413,0.108341513,0.098894433,0.087491139,0.075712961,0.064146082,0.053397132,0.043752386,0.035702601,0.02891379,0.02377447,0.01943263,0.015942799,0.012821037,0.010551284,0.009140357,0.007647636,0.006611593,0.005118872,0.0040283,0.003789738,0.003667048,0.002787775,0.002542396,0.002406074,0.001928949,0.002065271,0.002010742,0.001683571,0.001635858,0.001097388,0.00111102,0.001220077,0.001049676,0.000845193,0.000422597,0.001138285,0.000858825,0.000906538,0.000961067,0.000722504,0.000777033,0.000429413,0.000408965,0.000449861,0.000613447,0.000524838,0.000565734,0.000620263,0.000579366,0.000449861,0.000265827,0.000129505,4.09E-05,0,6.82E-06,4.09E-05,8.18E-05,0.000129505,0.000170402,0.000211298,0.000252195,0.000293091,0.000320356,0.00034762,0.000354436,0.000374884,0.000388516,0.000238563,0,0.000129505,7.5E-05,0.000456677,2.04E-05,0.000184034,0.000218114,0.000483941,0.000333988,0.000197666,0.000102241,0.000231747,0.000170402,0.000333988\nSRI-1052963-001.txt,O=C(C[C@@H]1NC(=O)N(CCc2c[nH]c3ccccc23)C1=O)NCCc1ccncc1,1,0.994356172,0.978088668,0.949626069,0.907640415,0.850427492,0.77831929,0.694525044,0.604688582,0.514055345,0.428999537,0.354279682,0.290980278,0.239787438,0.199461734,0.169339185,0.146874537,0.130806226,0.119540703,0.111927068,0.107190679,0.10477822,0.104200557,0.105231939,0.107648826,0.111451216,0.116433278,0.122637062,0.130013877,0.138557083,0.148034288,0.15845213,0.169708801,0.181983573,0.194765184,0.208102324,0.221902036,0.235626498,0.2495745,0.262805403,0.275241744,0.287284124,0.298164539,0.307652809,0.315580728,0.320841661,0.32359939,0.323867195,0.322034611,0.318442481,0.313042112,0.306028272,0.296489096,0.284269655,0.269903347,0.254003245,0.237667129,0.22265012,0.2099836,0.199946439,0.192202222,0.186224191,0.180923419,0.175748803,0.170144814,0.163531576,0.1561614,0.149483977,0.144628072,0.14194338,0.139986853,0.136443415,0.129396376,0.118343326,0.105099143,0.091458786,0.078621844,0.067234591,0.057381131,0.048919816,0.041514228,0.035193141,0.029613497,0.024950146,0.020727235,0.017378564,0.014412787,0.011871958,0.009849033,0.008189084,0.006712835,0.005588496,0.004672204,0.003868789,0.003229155,0.002786502,0.002452299,0.002049484,0.001927755,0.001750693,0.001467395,0.001389931,0.001363372,0.001184097,0.001111059,0.000918505,0.000889733,0.001080074,0.000993756,0.000900799,0.000829975,0.000690539,0.000708245,0.00077907,0.000719311,0.000639634,0.000617501,0.000575449,0.000517904,0.000577662,0.000486918,0.000458146,0.000655127,0.000559956,0.000559956,0.00054225,0.000431587,0.000544463,0.000482492,0.000438227,0.00042716,0.000458146,0.00032535,0.000236819,0.000393961,0.000298791,0.000407241,0.000340843,0.000289938,0.000289938,0.000181488,0.000225753,0.000265592,0.000292151,0.000245673,0.000256739,0.000243459,0.000225753,0.000194767,0.000146076,0.00010845,7.97E-05,5.98E-05,5.31E-05,6.2E-05,6.86E-05,7.53E-05,7.75E-05,7.75E-05,7.75E-05,7.97E-05,7.97E-05,7.75E-05,6.42E-05,4.65E-05,4.43E-05,3.76E-05,0,1.99E-05,9.3E-05,4.65E-05,3.54E-05,0.000143862,0.000146076,0.000135009,2.21E-05,3.54E-05,4.21E-05,0.000119516,0.000106237,6.2E-05\nSRI-1052997-001.txt,O=C(C[C@@H]1NC(=O)N(CCc2c[nH]c3ccccc23)C1=O)NCc1cccnc1,0.96969697,1,1,1,0.96969697,0.96969697,0.878787879,0.878787879,0.787878788,0.727272727,0.666666667,0.606060606,0.545454545,0.463636364,0.427272727,0.375757576,0.348484848,0.318181818,0.290909091,0.272727273,0.251515152,0.248484848,0.254545455,0.251515152,0.263636364,0.281818182,0.293939394,0.303030303,0.321212121,0.339393939,0.357575758,0.381818182,0.407272727,0.431212121,0.439090909,0.447575758,0.468181818,0.468787879,0.476666667,0.470909091,0.481515152,0.487575758,0.462727273,0.448787879,0.42969697,0.405757576,0.36969697,0.325151515,0.283939394,0.263939394,0.241212121,0.218181818,0.213333333,0.208181818,0.195151515,0.196969697,0.178484848,0.172727273,0.177272727,0.172121212,0.17,0.158484848,0.172424242,0.175757576,0.167575758,0.173939394,0.154545455,0.164848485,0.173030303,0.15969697,0.148787879,0.157878788,0.175454545,0.166363636,0.149090909,0.132727273,0.123939394,0.122727273,0.133333333,0.118484848,0.112121212,0.124848485,0.108484848,0.10030303,0.103333333,0.107575758,0.105151515,0.106969697,0.113030303,0.104848485,0.098484848,0.112727273,0.123636364,0.116363636,0.124242424,0.133636364,0.143939394,0.13,0.141212121,0.143636364,0.16030303,0.173636364,0.189393939,0.175757576,0.185757576,0.180909091,0.164545455,0.185454545,0.190606061,0.179393939,0.201212121,0.198484848,0.189393939,0.193636364,0.181515152,0.198181818,0.198181818,0.184242424,0.175757576,0.150909091,0.135151515,0.143939394,0.13,0.113636364,0.077878788,0.074242424,0.05030303,0.055757576,0.053636364,0.023939394,0.008484848,0.008181818,0.013939394,0.004848485,0.001515152,0.018787879,0.015151515,0.009393939,0.005454545,0.015151515,0.013636364,0.008181818,0.013939394,0.012727273,0.011818182,0.015454545,0.017878788,0.01030303,0.008484848,0.007575758,0.006363636,0.006363636,0.005151515,0.003636364,0.002121212,0.000909091,0.000909091,0.000606061,0.00030303,0.000909091,0.001515152,0.002424242,0.003030303,0.004242424,0.003636364,0.002121212,0.004242424,0.011818182,0.007575758,0.012424242,0,0.006060606,0.005151515,0.00969697,0.016666667,0.018181818,0.008484848,0.00969697,0.018787879,0.018181818,0.005454545\nSRI-0000282.txt,CSC1=NN=C(S1)C1=CC=C(Cl)C(Cl)=C1,0.849638856,0.800981791,0.753405995,0.709074002,0.667985814,0.631222698,0.598784655,0.568509148,0.542558713,0.519852083,0.49822672,0.478763894,0.459301068,0.44091951,0.422537953,0.403075127,0.386099217,0.37042083,0.357445612,0.345551663,0.337442152,0.331819558,0.328251373,0.326629471,0.326088837,0.326737598,0.328575754,0.33073829,0.333008953,0.335063362,0.337442152,0.339064054,0.340253449,0.341659098,0.341875351,0.341875351,0.340999524,0.339258683,0.337334025,0.334511916,0.331257299,0.328056745,0.324402059,0.321115004,0.318098266,0.315395095,0.313686692,0.313037931,0.313784006,0.315773539,0.319882358,0.325732019,0.333798279,0.343216124,0.355445266,0.369371999,0.384585442,0.401766792,0.420018598,0.439589551,0.45983089,0.480937243,0.503200554,0.525680118,0.549024696,0.573785736,0.598189957,0.623372691,0.648436486,0.673359716,0.698153194,0.722124908,0.746421003,0.770100774,0.792623589,0.815470784,0.837798971,0.860192033,0.881590329,0.901669478,0.919445526,0.935340167,0.949288526,0.961236538,0.97181134,0.979942477,0.986711215,0.992679815,0.99641019,0.999502617,1,0.998378098,0.994550409,0.988408806,0.98027767,0.970027248,0.956716838,0.940897885,0.92329484,0.902599369,0.879319666,0.852969162,0.823872237,0.79327235,0.760866745,0.726914926,0.693233424,0.658351715,0.624410709,0.590588642,0.557177458,0.523787898,0.490495653,0.457700791,0.424559924,0.392154319,0.359099952,0.325959085,0.293466978,0.261396566,0.230364171,0.201386186,0.174073353,0.149236625,0.126183989,0.106083214,0.088663985,0.073061286,0.060302323,0.048992258,0.040147485,0.032740798,0.02673976,0.02149561,0.017202976,0.013613166,0.011353315,0.009061027,0.007071493,0.005752346,0.004325072,0.004454825,0.003546559,0.002519355,0.002184162,0.002303101,0.002324726,0.002000346,0.001675966,0.001394836,0.001102893,0.000865014,0.000670386,0.000540634,0.000464945,0.00044332,0.000421695,0.000400069,0.000389257,0.000356818,0.000367631,0.000410882,0.000454133,0.000475758,0.000400069,0.000367631,0.000400069,0.000529821,0.000227066,0.000529821,0.000335193,0.000659574,0.000259504,0.000497383,0.000540634,0.000216254,0.000562259,0.000735262,0.001102893,0.000313568,0\nSRI-1052987-001.txt,COC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)Nc1ccccc1C(=O)OC,0.981337295,0.994525606,1,0.995520951,0.978600098,0.947495589,0.896733031,0.825814751,0.738722127,0.643417913,0.550104387,0.466818954,0.396298812,0.339638839,0.296764385,0.265634992,0.243836953,0.229752831,0.221217754,0.217062192,0.215942429,0.217335911,0.220321944,0.224751226,0.230424689,0.236546056,0.243389048,0.250431108,0.257498053,0.264216627,0.26969102,0.273249376,0.274391534,0.273363841,0.270477342,0.266931428,0.262828121,0.257595099,0.249000301,0.234206997,0.213267442,0.188667508,0.164239271,0.142874206,0.126127538,0.114165989,0.106496861,0.101910812,0.099855426,0.099479684,0.100253564,0.101619674,0.103408805,0.105324843,0.107138858,0.108776199,0.110169681,0.111697535,0.11357127,0.115952632,0.118403667,0.120732772,0.122658764,0.123815851,0.123960176,0.12274088,0.120625773,0.1187172,0.11821704,0.119483615,0.121745535,0.122984739,0.121190631,0.116355746,0.10945801,0.102428391,0.096419,0.091676185,0.088194968,0.085582189,0.08365371,0.082369716,0.081705323,0.081386813,0.081461464,0.08186209,0.082377181,0.082864899,0.083489478,0.083922453,0.08441266,0.084870518,0.085091982,0.085136773,0.085094471,0.084790891,0.08409415,0.083121201,0.082056182,0.080675142,0.079167195,0.077477599,0.075327655,0.073185176,0.070706769,0.068178595,0.065573281,0.062646969,0.059558913,0.056458416,0.053198663,0.04990905,0.046475113,0.043150663,0.039878468,0.036499275,0.033214639,0.03002456,0.026891714,0.023888263,0.02106895,0.018560682,0.016132042,0.013994541,0.011981457,0.010257023,0.00862217,0.007445175,0.006161181,0.005138465,0.004369561,0.003553379,0.002931289,0.002353989,0.001935945,0.001582597,0.001341226,0.001164553,0.000900787,0.000721625,0.000614625,0.000502649,0.000408091,0.000437951,0.000335929,0.000281185,0.000266255,0.000253813,0.000248836,0.000231418,0.000189115,0.000149302,0.000119441,0.000107,9.95E-05,9.21E-05,8.21E-05,7.22E-05,5.97E-05,5.23E-05,3.98E-05,3.98E-05,4.73E-05,5.72E-05,5.23E-05,4.73E-05,2.49E-05,6.97E-05,0.000144325,8.21E-05,0,4.98E-05,5.23E-05,7.22E-05,8.96E-05,9.21E-05,5.97E-05,0.000116953,0.000144325,0.00019658,5.97E-05\nSRI-1053229-001.txt,CC(C)C(NS(=O)(=O)c1ccc2n(C)c(=O)oc2c1)C(O)=O,0.305046641,0.263237817,0.23602264,0.220640148,0.21393496,0.212948903,0.216104285,0.225176011,0.238191966,0.253377246,0.270337429,0.291636263,0.315498846,0.341727967,0.369929201,0.401285819,0.434811762,0.469915396,0.507977202,0.548405546,0.590806003,0.634389729,0.679748358,0.725698621,0.76967677,0.813063285,0.85506932,0.893860808,0.929398308,0.957796754,0.97947029,0.993708955,1,0.997653184,0.9861952,0.965448557,0.935689353,0.898514998,0.853728282,0.80347881,0.74896957,0.694480052,0.640877985,0.591535685,0.550022679,0.513814661,0.484528763,0.462026939,0.446447236,0.436369732,0.430709764,0.429349005,0.431478889,0.436882482,0.444711775,0.455873942,0.468140493,0.48068314,0.492989134,0.502889147,0.508568837,0.508943538,0.503855483,0.496933362,0.487763031,0.479775968,0.472380539,0.458654624,0.433115743,0.394087601,0.339676968,0.278521703,0.218884967,0.166978918,0.125702566,0.094050131,0.07125249,0.055869998,0.044845879,0.038199854,0.033052636,0.029068965,0.026524937,0.024355612,0.023034295,0.02121995,0.020233893,0.018360384,0.01794624,0.01690102,0.015264165,0.015066953,0.014179502,0.013863964,0.013370935,0.013410377,0.014238665,0.013193445,0.012818743,0.0113791,0.009722524,0.007750409,0.006527698,0.005995227,0.00483168,0.002859566,0.002169326,0.002287653,0.002031278,0.002287653,0.00258347,0.002958171,0.003214546,0.00207072,0.002228489,0.002327095,0.00224821,0.000788846,0.001991835,0.001597413,0.001715739,0.001696018,0.002405979,0.002366537,0.003214546,0.003470921,0.002011557,0.001636855,0.003017335,0.002997614,0.002031278,0.002701797,0.002603191,0.002386258,0.00155797,0.001952393,0.002859566,0.00224821,0.002287653,0.001755182,0.001262153,0.001774903,0.000926894,0.000808567,0.001419922,0.001774903,0.001617134,0.001262153,0.000808567,0.000335259,0.000118327,3.94E-05,0,0,0.000118327,0.000276096,0.000433865,0.000571913,0.000670519,0.000769125,0.000848009,0.000907173,0.000946615,0.00086773,0.000788846,0.00086773,0.001301595,0.001281874,0.00138048,0.000670519,0.000729682,0.00017749,0.000552192,0.000907173,0.001794624,0.000788846,0.000946615,0.000887451,0.000808567,0.001400201,0.001045221\nSRI-1053351-001.txt,CC(C)[C@H](NC(=O)Nc1ccccc1C(O)=O)C(O)=O,0.969713872,0.98801276,0.998287537,1,0.986985283,0.954105997,0.895050493,0.811922655,0.713529435,0.613228041,0.52232073,0.447168076,0.388797558,0.347209175,0.319075857,0.302538359,0.2940739,0.29192109,0.294318538,0.300140911,0.308458588,0.318293017,0.329595272,0.341435729,0.353667606,0.366241976,0.378571708,0.390177313,0.40093158,0.409670033,0.415189056,0.416735165,0.414190935,0.407825466,0.398768984,0.387481408,0.374970643,0.359030061,0.335975419,0.303159739,0.261091866,0.214331846,0.168594411,0.128483639,0.095780492,0.071385236,0.053781118,0.041524777,0.033368561,0.0279425,0.024732856,0.022883396,0.02198313,0.021767849,0.022379443,0.023279709,0.024307186,0.025863081,0.027409191,0.029058048,0.031117896,0.033637662,0.036216142,0.038872906,0.041573704,0.044582746,0.047704321,0.05113414,0.054676491,0.058238414,0.062328754,0.066771372,0.071453734,0.075871888,0.080383005,0.085329576,0.090168506,0.094792156,0.099777869,0.104504266,0.109176844,0.113594998,0.11816972,0.122294309,0.126061727,0.129917215,0.133200251,0.136189721,0.138724166,0.141204791,0.14323039,0.144536754,0.145559339,0.146107327,0.146092649,0.145632731,0.144575896,0.143205926,0.141111829,0.138895413,0.136047832,0.132466338,0.128747847,0.124809183,0.120391029,0.115278104,0.110106466,0.10520393,0.099621301,0.094092493,0.088480507,0.082496673,0.076654728,0.070778535,0.065068694,0.059363747,0.054030648,0.048873689,0.043853726,0.039049045,0.034699389,0.030403554,0.026719313,0.023265031,0.019874354,0.017051237,0.014844606,0.012760294,0.010490058,0.008953734,0.007495694,0.005978942,0.005161852,0.004383905,0.003542352,0.003057969,0.002617622,0.002118561,0.00176139,0.001379756,0.001164475,0.000914944,0.000958979,0.000704556,0.000557774,0.000455026,0.000435455,0.000450133,0.000440348,0.000376742,0.000293565,0.000229959,0.000190817,0.000176139,0.000151675,0.000146783,0.000136997,0.000136997,0.000136997,0.000127212,0.000117426,0.000102748,9.3E-05,6.85E-05,3.91E-05,7.34E-05,0.000132104,0.00019571,0.000264209,0.000185925,0.000220174,0.000244638,2.94E-05,0.000210388,0.000185925,0.000303351,0.000117426,0,0.000127212,0.000161461,0.000332707\nSRI-1053341-001.txt,C[C@H](NS(=O)(=O)c1ccc(NC(C)=O)cc1)C(O)=O,0.168659719,0.150708279,0.139113185,0.133385488,0.131709089,0.133175938,0.137297086,0.143443883,0.151895728,0.161674723,0.172920567,0.18591266,0.200860552,0.216995893,0.234667933,0.254295773,0.275600011,0.298440949,0.323237685,0.349990221,0.377972116,0.407623425,0.439062893,0.47202509,0.505902322,0.541358163,0.577351848,0.614288508,0.652084323,0.689607723,0.727634042,0.763802353,0.799020704,0.83340784,0.865028918,0.894470677,0.921809952,0.944601995,0.964593054,0.980169596,0.99060518,0.997799726,1,0.996186192,0.986986952,0.971270711,0.949100332,0.922082367,0.891956078,0.858281412,0.822846526,0.78611243,0.74909195,0.71214132,0.675588835,0.63972088,0.604816853,0.567998938,0.529183314,0.487587662,0.441912771,0.394764047,0.346141488,0.298224414,0.252793998,0.209850242,0.171209243,0.136312201,0.106381493,0.080760526,0.061104747,0.04564695,0.033437177,0.024873572,0.018922355,0.014179542,0.010952474,0.008298176,0.006649716,0.005385432,0.004645022,0.003827778,0.003129278,0.002493644,0.002326004,0.002088514,0.001599564,0.001452879,0.001327149,0.001089659,0.000970914,0.001019809,0.001040764,0.000747395,0.000915035,0.00071247,0.00064262,0.0006985,0.00085217,0.00058674,0.00051689,0.000481965,0.00064262,0.00054483,0.000565785,0.000509905,0.00043307,0.00072644,0.0004191,0.00037719,0.0006985,0.000621665,0.000761365,0.000356235,0.000551815,0.00048895,0.000537845,0.00065659,0.000509905,0.000314325,0.00061468,0.000412115,0.00053086,0.000481965,0.000495935,0.0005588,0.00054483,0.000398145,0.00030734,0.00043307,0.000356235,0.000509905,0.000495935,0.000314325,0.000635635,0.000384175,0.00034925,0.00051689,0.000286385,0.000328295,0.000286385,0.00050292,0.00053086,0.00048895,0.00018161,0.00020955,0.00026543,0.00026543,0.000300355,0.00032131,0.000300355,0.0002794,0.00025146,0.00022352,0.00019558,0.00016764,0.000160655,0.00016764,0.00018161,0.000202565,0.00022352,0.000230505,0.00023749,0.000230505,0.00020955,0.00022352,0.000384175,0.000384175,0.00039116,4.19E-05,0.00018161,0.000286385,0.000216535,0,0.00032131,0.000118745,4.19E-05,2.1E-05,0.00050292,0.00050292,0.00065659\nSRI-0000533.txt,CCOC(=O)C(CCC(N1C(=O)C2=CC=CC=C2C1=O)C(=O)OCC)N1C(=O)C2=CC=CC=C2C1=O,1,0.985837022,0.962697509,0.926192932,0.874727462,0.808301101,0.733097683,0.656098957,0.584286675,0.522248842,0.471182329,0.43088766,0.397774218,0.368251391,0.339566373,0.311838853,0.286345493,0.264303112,0.246030875,0.231688367,0.219819392,0.207770887,0.191712863,0.169530846,0.142740875,0.114574502,0.089220777,0.068355319,0.052736148,0.041525452,0.033805632,0.028559346,0.025088419,0.022714624,0.021054962,0.01991594,0.019145952,0.018667204,0.018314127,0.018106669,0.018066773,0.018126617,0.018230346,0.018457751,0.018659225,0.018906578,0.019118025,0.019297556,0.019542915,0.019921924,0.020235105,0.020711859,0.021352185,0.021872824,0.022485224,0.023105602,0.023749918,0.024390244,0.025142278,0.025976098,0.026821888,0.02758589,0.028288055,0.029103922,0.029794118,0.030440429,0.03127026,0.032187861,0.032971812,0.033765736,0.034667379,0.035467289,0.036440744,0.037158867,0.037737355,0.038305868,0.038702831,0.038700836,0.038599102,0.038379676,0.037926859,0.037350366,0.036731983,0.035892178,0.034910743,0.033717862,0.032235736,0.03042846,0.028292045,0.026131692,0.02382173,0.021300321,0.01879487,0.016552731,0.014438258,0.012419535,0.010678087,0.009140108,0.007755727,0.00655686,0.005589389,0.004759559,0.004091305,0.003450979,0.00297622,0.002519414,0.002148384,0.001837198,0.00157987,0.001374407,0.001216819,0.001150991,0.001007367,0.000793925,0.000803899,0.000686206,0.000580483,0.000678227,0.00065429,0.000414915,0.000518644,0.000456806,0.000271291,0.000301213,0.000319166,0.000349087,0.000151604,0.000255333,0.000191499,0.000177536,0.00023339,0.000155593,0.000201473,0.000217432,0.000217432,0.000107718,0.000155593,0.000107718,0,0.000145619,0.000143625,0.00014163,0.000121682,0.00018352,0.000155593,3.79E-05,3.79E-05,0.000135645,0.000269296,0.000335124,0.000355072,0.000361056,0.00032914,0.00027927,0.0002294,0.000189505,0.000157588,0.000129661,0.000111708,9.57E-05,8.18E-05,7.58E-05,6.98E-05,6.78E-05,7.78E-05,6.38E-05,9.18E-05,0.00014163,0.000129661,0.000143625,8.58E-05,0.000107718,0.000103729,6.98E-05,3.59E-05,4.79E-05,6.38E-05,3.19E-05,4.79E-05,3.79E-05,3.59E-05\nSRI-1053027-001.txt,O=C(CCCCCn1nnc2ccccc2c1=O)Nc1nnc(s1)C1CC1,0.971836023,0.978467224,0.985843504,0.992362943,0.997839272,1,0.998435335,0.991804134,0.980739714,0.965800885,0.94739744,0.926907774,0.903437793,0.87549734,0.842527605,0.803410971,0.761500291,0.719105309,0.680100437,0.645864068,0.619078487,0.598886852,0.584395071,0.575789411,0.571579716,0.570089558,0.570946399,0.57266008,0.574969824,0.576303515,0.577309372,0.577961316,0.578181114,0.577804849,0.576653702,0.575044332,0.571896374,0.56665102,0.559997467,0.551633958,0.541981462,0.531554085,0.520668485,0.510103268,0.499694518,0.489706737,0.479901501,0.469857839,0.459668887,0.449416603,0.439093537,0.428662435,0.417843891,0.407409063,0.39720521,0.387433502,0.378280209,0.369734156,0.362339249,0.355093358,0.348410002,0.34219232,0.336362078,0.33065105,0.325759608,0.320916596,0.316565336,0.312303485,0.308533387,0.304942107,0.301097501,0.296563697,0.292264592,0.287328446,0.282157599,0.277225178,0.272017077,0.267386413,0.263694548,0.260531688,0.25761843,0.254720074,0.251508784,0.246986156,0.24115219,0.234088843,0.225762588,0.217082421,0.208037165,0.199606598,0.191835427,0.185383045,0.180487878,0.177127572,0.174720968,0.17237397,0.168670929,0.162833236,0.154141893,0.142563369,0.128816666,0.113997049,0.099069397,0.084570164,0.071244431,0.059602575,0.049588717,0.041072466,0.034102255,0.028119272,0.023328416,0.019312441,0.016216639,0.013634941,0.011343824,0.009507205,0.008415665,0.007029818,0.006027687,0.005196924,0.004492825,0.003941467,0.003364031,0.002890906,0.002548169,0.002343273,0.001862697,0.001579567,0.001642899,0.001546038,0.001307613,0.001203302,0.000886644,0.001002131,0.000804685,0.000987229,0.000733903,0.000573711,0.000823312,0.000573711,0.000610965,0.00047685,0.000506654,0.000376265,0.000406068,0.000391166,0.000372539,0.000353912,0.000316658,0.000253327,0.000189995,0.000175094,0.000152741,0.000134114,0.000111762,9.31E-05,8.57E-05,9.31E-05,0.000104311,0.000122938,0.00013784,0.000156467,0.000182544,0.000201171,0.000223524,0.000242151,0.000242151,0.000324109,0.000152741,0.000119213,0.000197446,0.000167643,0.000279405,0.000253327,0.000171368,0.000119213,0,0.00019372,0.000134114,0.000100586,1.86E-05\nSRI-0000527.txt,CCN(CC)C(=O)N1CCN(CC1)C1=CC=C(OC)C=C1,0.995631519,0.99918091,1,0.994812428,0.987167586,0.971331841,0.944301862,0.913995522,0.873314039,0.824714684,0.769016546,0.709495986,0.646426036,0.585813357,0.529023098,0.476328291,0.432097417,0.396876536,0.369573527,0.34882324,0.332714465,0.320701141,0.310599028,0.301042975,0.293398132,0.28466117,0.275924207,0.267733304,0.257521979,0.24818435,0.238327964,0.228799214,0.218533282,0.207639382,0.198083329,0.188445367,0.178862011,0.168923715,0.159394965,0.152050456,0.145333916,0.137525255,0.12985311,0.124993174,0.120706602,0.116228908,0.111696609,0.107601158,0.105253099,0.102877737,0.100065527,0.099219134,0.097744771,0.095806258,0.091301261,0.088243324,0.084311691,0.081936329,0.080844209,0.079752089,0.077704363,0.074182275,0.06869437,0.060476164,0.055725441,0.05045596,0.046742751,0.044531207,0.043138754,0.042592694,0.042756512,0.043602905,0.042811118,0.041637088,0.042947633,0.042592694,0.041555179,0.041309452,0.041855512,0.04210124,0.041118331,0.040790695,0.039207121,0.039398242,0.039016,0.03729591,0.034893245,0.034183367,0.033282368,0.031589581,0.029787583,0.028777371,0.027849069,0.025664828,0.024217769,0.02323486,0.023043739,0.021815104,0.019740075,0.020204227,0.017992683,0.016764047,0.017037077,0.015617321,0.014770928,0.014934746,0.014770928,0.013296565,0.014142959,0.013651504,0.011276143,0.012504778,0.011576476,0.010866597,0.010129416,0.010020204,0.010375143,0.011303446,0.009719871,0.009310326,0.009774477,0.009091902,0.008736963,0.008818872,0.009146508,0.007863267,0.008573145,0.008027085,0.009146508,0.007481024,0.007098782,0.007863267,0.006552722,0.007399115,0.008190903,0.00671654,0.006934964,0.006252389,0.007344509,0.006552722,0.005051057,0.004832633,0.004969148,0.003822421,0.003822421,0.004068148,0.004095451,0.003931633,0.003522088,0.00308524,0.002839513,0.002593786,0.002429968,0.002402665,0.002457271,0.002484574,0.002484574,0.002429968,0.002375362,0.002348059,0.00226615,0.002156938,0.001965817,0.001774696,0.001556272,0.001392453,0.001474362,0.001501665,0.000218424,0.001146726,0.001392453,0.001747393,0.00027303,0.000627969,0.001556272,0.00109212,0,0.000791787,0.000163818,0.000109212,0.00027303\nSRI-0000269.txt,OC(C1=NC2=CC=CC=C2S1)C1=CC=CC=C1,1,0.990657564,0.975206612,0.951491197,0.921667266,0.88501617,0.843693856,0.801293568,0.758533956,0.717570967,0.680273087,0.646460654,0.615235358,0.586669062,0.559755659,0.53420769,0.508336328,0.481890047,0.454904779,0.427344592,0.400970176,0.376787639,0.356126482,0.340100611,0.32892562,0.322385914,0.319942508,0.321128279,0.325080848,0.331261229,0.338878908,0.348077614,0.357858426,0.367987783,0.376733741,0.383539346,0.387959037,0.390560546,0.390294646,0.386859504,0.381466044,0.374434064,0.367179303,0.359910169,0.35309019,0.34580309,0.335907294,0.322666188,0.306306144,0.287513475,0.267168523,0.245799497,0.223873518,0.202587136,0.182781171,0.16567014,0.151052821,0.138875314,0.128745958,0.120445562,0.113708229,0.108282429,0.104527488,0.102694934,0.101947539,0.101034854,0.099112469,0.095810277,0.09134028,0.085903701,0.080197628,0.075343155,0.071696011,0.069701761,0.06865972,0.067509881,0.064991017,0.060653971,0.054531082,0.046942149,0.039144808,0.031785843,0.025195832,0.019698167,0.015012576,0.011394179,0.008541143,0.006518146,0.004840101,0.003736974,0.002709307,0.002234998,0.001803809,0.001390586,0.001243263,0.000977363,0.000733022,0.000783327,0.000761768,0.000564139,0.000567733,0.000495868,0.000477902,0.000485088,0.000481495,0.000456342,0.000431189,0.000441969,0.000309019,0.000395257,0.000477902,0.00040963,0.000445562,0.000233561,0.000312612,0.000438376,0.000380884,0.000348545,0.000334172,0.000312612,0.0002659,0.000377291,0.000165289,0.000204815,9.7E-05,0.000309019,0.00028746,0.000201222,0.000226374,0.000204815,0.000212001,0.00028746,0.000326985,0.000373697,0.000226374,0.000212001,0.000316206,0.000258714,0.000168883,0.000251527,0.000197628,0.000240747,0.000168883,0.000247934,0.000204815,0.000237154,0.000215595,0.000179662,0.000147323,0.00015451,0.000165289,0.000161696,0.00015451,0.000150916,0.000136543,0.00012217,0.000114984,0.000104204,0.000100611,0.000100611,9.34E-05,9.34E-05,0.000100611,0.000107797,0.000107797,9.7E-05,0.000104204,0.000161696,0,7.19E-05,0.000118577,7.55E-05,3.23E-05,0.000212001,8.26E-05,6.83E-05,0.00012217,6.11E-05,3.95E-05,8.98E-05,0.000291053\nSRI-1052856-001.txt,COC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)C1CN(C(=O)C1)c1ccccc1Cl,1,0.987327686,0.96688847,0.936456748,0.896032521,0.843117662,0.778961234,0.706629119,0.629709536,0.55158631,0.478141394,0.412645062,0.356141984,0.308859265,0.270251857,0.239434061,0.214702609,0.194649467,0.178434356,0.16462653,0.153180569,0.143097223,0.134285649,0.126473327,0.119614834,0.11352849,0.108146163,0.103422433,0.099425431,0.096127904,0.093443554,0.091535894,0.090341335,0.089680467,0.089596439,0.090270933,0.091479118,0.09352304,0.096307315,0.099559421,0.103181705,0.107078782,0.111202961,0.115429337,0.119921423,0.12435219,0.128869257,0.133243249,0.137371971,0.141141871,0.144568846,0.14781641,0.150841414,0.15342584,0.155297163,0.156280517,0.156514432,0.156618899,0.157061749,0.157961075,0.159067063,0.159834669,0.1597461,0.158528831,0.155472032,0.150355415,0.143749006,0.13748098,0.133381782,0.131896532,0.131515,0.12883065,0.12144528,0.109195376,0.094583608,0.079869643,0.066404742,0.054922445,0.045418209,0.037358345,0.030574796,0.024888152,0.020112189,0.016087934,0.012701837,0.009967524,0.007678332,0.005906933,0.00428088,0.003256648,0.002634388,0.002071174,0.001514773,0.001230895,0.0010424,0.000794858,0.000626803,0.000461018,0.000361093,0.000306588,0.000233915,0.000168056,0.000145346,9.08E-05,9.77E-05,8.4E-05,5.45E-05,0.000124906,3.63E-05,5E-05,9.54E-05,6.59E-05,0.00011128,7.49E-05,0.000129448,0.000238458,0.000308859,0.000415597,0.000454205,0.000456476,0.000542775,0.00061999,0.000649513,0.000719915,0.000692662,0.000558672,0.000624532,0.000701746,0.000656326,0.000722186,0.000790316,0.000874344,0.00081984,0.000919765,0.000990166,0.001051484,0.001010606,0.001028774,0.00110826,0.001085549,0.001058297,0.00110826,0.001044671,0.001112802,0.001112802,0.00108782,0.001092363,0.001094634,0.001085549,0.001051484,0.001024232,0.001001522,0.000981082,0.000965185,0.000956101,0.000947017,0.000937933,0.000922036,0.000901597,0.000881157,0.000856176,0.000824382,0.000783503,0.00073127,0.000669952,0.000631345,0.000617719,0.000538233,0.00046556,0.000481457,0.000467831,0.00037699,0.000374719,0.000349738,0.000188495,0.00019985,7.27E-05,0,0.000113551,2.27E-05,2.95E-05\nSRI-1053290-001.txt,C[C@H](NC(=O)N1C[C@@H]2C[C@@H](C1)c1cccc(=O)n1C2)C(O)=O,0.666435314,0.676846197,0.689339256,0.707384786,0.728900611,0.749028318,0.769156024,0.78997779,0.812881732,0.830927263,0.842726263,0.85577457,0.859522488,0.857856746,0.847792893,0.828567463,0.801568573,0.771515825,0.730843976,0.683856191,0.628262077,0.563436979,0.490838423,0.416227096,0.343350916,0.276096613,0.218142699,0.173792338,0.13596613,0.11049417,0.088423098,0.077109939,0.06579678,0.061632426,0.060313715,0.057884509,0.059064409,0.059966685,0.064547474,0.066143809,0.071210439,0.074611327,0.080372016,0.084328151,0.089533592,0.096543587,0.105288728,0.114311494,0.122987229,0.133675736,0.144711272,0.157481954,0.167823431,0.181565797,0.196835092,0.211271516,0.228900611,0.251388118,0.270474736,0.289006108,0.312881732,0.334744586,0.358620211,0.388117712,0.414214325,0.43691005,0.464602998,0.497223765,0.527484731,0.55684342,0.587104386,0.61875347,0.653317601,0.682676291,0.711757357,0.745419212,0.774500278,0.802193226,0.830441421,0.859244864,0.886243753,0.904913937,0.927262632,0.945446974,0.961757357,0.976332593,0.987159911,0.996946141,1,0.999097723,0.992851194,0.985285952,0.971057746,0.953636868,0.935452526,0.907065519,0.878817324,0.855149917,0.821071627,0.790810661,0.752498612,0.719044975,0.679275403,0.633953359,0.588076069,0.537409772,0.487645752,0.433578567,0.380483065,0.327387562,0.278803443,0.232648529,0.194197668,0.156926707,0.127220988,0.101540811,0.07794281,0.063228762,0.054067185,0.039006108,0.033037202,0.02817879,0.023806219,0.019017213,0.020127707,0.01922543,0.011382565,0.012840089,0.012215436,0.00978623,0.011660189,0.007218212,0.008883953,0.010480289,0.008675736,0.008536924,0.009300389,0.006593559,0.008467518,0.008189895,0.0058995,0.005552471,0.0035397,0.00742643,0.005968906,0.00624653,0.006038312,0.004858412,0.003331483,0.001735147,0.000555247,0.000347029,0.000208218,0,0.000485841,0.000971682,0.001596335,0.002082177,0.002429206,0.00270683,0.003053859,0.003400888,0.003609106,0.0035397,0.003470294,0.0035397,0.004580788,0.005760689,0.004858412,0.003956135,0.002498612,0.001873959,0.002498612,0.002220988,0.006177124,0.002845641,0.003331483,0.004094947,0.003262077,0.00270683,0.003470294\nSRI-1052834-001.txt,Cc1c(OCC(=O)N[C@@H](Cc2c[nH]c3ccccc23)C(O)=O)ccc2c(C)c(C)c(=O)oc12,1,0.97767963,0.949117457,0.914748037,0.872734384,0.82185184,0.76174486,0.696245437,0.627170804,0.557681368,0.492438728,0.434721805,0.385004662,0.343682348,0.31034006,0.284167944,0.264553672,0.250213327,0.239902501,0.23312738,0.228979347,0.2266683,0.225641167,0.225463395,0.225443642,0.225265869,0.224811561,0.224238737,0.22325111,0.222777049,0.222721742,0.223000253,0.223440734,0.223087164,0.220738587,0.216132295,0.20894632,0.199696206,0.189559202,0.180125389,0.173063856,0.16901261,0.168346949,0.17052763,0.175236635,0.181693741,0.189507846,0.198345132,0.207745366,0.217678919,0.227570991,0.23763491,0.247846973,0.258047185,0.26784247,0.277301961,0.286498744,0.295758735,0.305160944,0.315185358,0.325415198,0.335281592,0.344863549,0.353100359,0.359970292,0.364827442,0.368327592,0.371418864,0.375914543,0.382292638,0.389610954,0.394918462,0.396680388,0.393948612,0.388546292,0.382330168,0.377004883,0.373249925,0.370832214,0.369384353,0.368436231,0.367689585,0.36733799,0.366761215,0.366162714,0.365139532,0.363978083,0.362190478,0.359962391,0.35727407,0.354206501,0.350767584,0.346830902,0.342275967,0.337403015,0.331870329,0.325553466,0.318616374,0.311175592,0.302853847,0.29377953,0.284081033,0.274139579,0.263724065,0.253065594,0.242179969,0.231397058,0.22060822,0.209689016,0.198858698,0.188152821,0.177365959,0.166675885,0.15540311,0.144236999,0.132851635,0.121468246,0.110215224,0.099165653,0.088562489,0.078310921,0.068894885,0.060154386,0.052160533,0.045025915,0.038633993,0.032945262,0.028167122,0.023955881,0.020362894,0.017340755,0.014814405,0.012657428,0.010761184,0.009157278,0.007744971,0.006595373,0.005615647,0.004813694,0.004104578,0.003523853,0.003081396,0.002648816,0.002277468,0.002028586,0.00182711,0.001736248,0.001688842,0.001613783,0.001447861,0.001260212,0.001094291,0.000975775,0.000898741,0.000849359,0.00081578,0.000784176,0.000750597,0.000715042,0.000679487,0.000639982,0.000596527,0.000547145,0.000491838,0.000442457,0.000404927,0.000347645,0.000321966,0.000371348,0.000227154,0.000221228,0.000215303,0.000225179,0.000150119,0.000106664,0.000142218,2.57E-05,0,9.88E-06,3.75E-05,2.37E-05\nSRI-1052824-001.txt,CC(Oc1ccc2c(C)cc(=O)oc2c1)C(=O)NC(Cc1c[nH]c2ccc(O)cc12)C(O)=O,1,0.96694119,0.928662568,0.885164134,0.84137571,0.794977381,0.753218884,0.71001044,0.668831922,0.627653404,0.58444496,0.543846422,0.503247883,0.460619418,0.420310869,0.382032247,0.346073541,0.31417469,0.284595755,0.258496694,0.236457488,0.216158218,0.199048834,0.182809419,0.16859993,0.157000348,0.148590651,0.141746897,0.136469087,0.133105208,0.129857325,0.127392414,0.124956502,0.123796543,0.12278158,0.121041643,0.12194061,0.124405521,0.127914395,0.133627189,0.140064958,0.147952674,0.156362371,0.163960097,0.174109732,0.183940378,0.194322004,0.205196613,0.21528825,0.227409813,0.237907435,0.248289062,0.258351699,0.268356339,0.278302981,0.286538685,0.296021343,0.303126087,0.309737849,0.315943626,0.320148475,0.323831342,0.326267254,0.328935158,0.329515137,0.331284074,0.333632989,0.335227932,0.336329892,0.338562812,0.340041758,0.34111472,0.342071685,0.341839694,0.343666628,0.3472335,0.349669412,0.353265282,0.359616054,0.363965897,0.370722654,0.379393342,0.386614082,0.394298805,0.402592507,0.409494258,0.414772068,0.421847813,0.426922631,0.429938522,0.434955342,0.437043266,0.438029231,0.437855237,0.437478251,0.435999304,0.431504466,0.427705603,0.42193481,0.416859993,0.411321192,0.405347407,0.397836678,0.38916599,0.380495302,0.369272706,0.358833082,0.347987472,0.336909871,0.324846306,0.314406681,0.302836098,0.292541469,0.279955922,0.269023315,0.257568728,0.243910219,0.232397634,0.21723118,0.201571743,0.18501334,0.169527897,0.151722538,0.133366199,0.117677764,0.100075397,0.084792947,0.073135367,0.061129799,0.050719174,0.042715462,0.034885744,0.029085953,0.024794107,0.019603294,0.016732398,0.013281522,0.010932606,0.008931678,0.007974713,0.007829718,0.007307737,0.004842826,0.005103816,0.00417585,0.003798863,0.003711866,0.003711866,0.003508874,0.003131887,0.002580907,0.002348915,0.002174922,0.002087925,0.002000928,0.001913931,0.001797935,0.001739937,0.001739937,0.001768936,0.001768936,0.001768936,0.001884932,0.002087925,0.002290918,0.002348915,0.00139195,0.001971929,0.00223292,0,0.001681939,0.002029927,0.00110196,0.002058926,0.000985965,0.001275954,0.002087925,0.002058926,0.001130959,0.002145923,0.001507946\nSRI-1053194-001.txt,Cc1cc(ccc1F)S(=O)(=O)NC(Cc1ccccc1)C(O)=O,1,0.963393545,0.930994728,0.901120494,0.87335008,0.846000429,0.817809251,0.78709349,0.753221999,0.715479481,0.6742867,0.629559502,0.582686409,0.534088184,0.484185591,0.43436715,0.386189689,0.340242276,0.297071904,0.257351796,0.222218015,0.191628482,0.165246589,0.142904028,0.124516648,0.109369149,0.097461532,0.087994345,0.080757207,0.075371429,0.071374173,0.069051556,0.068130083,0.068062761,0.0680291,0.067987024,0.06840358,0.069762647,0.07129002,0.072863677,0.073381216,0.07280477,0.072207285,0.072278815,0.0728763,0.073250779,0.072665918,0.071045977,0.068487733,0.065130037,0.060648902,0.055204218,0.050937672,0.048514072,0.048152216,0.047807189,0.044908126,0.03925306,0.032293626,0.025590858,0.020200873,0.016472905,0.01396936,0.012197944,0.011028221,0.010354998,0.009955273,0.009563962,0.009303089,0.009345165,0.009143199,0.009172652,0.009092707,0.009029592,0.009092707,0.009092707,0.009000139,0.008907571,0.008503638,0.008314294,0.008209103,0.008066043,0.007897738,0.007620033,0.007283422,0.006972057,0.006660692,0.006159983,0.005676104,0.005427854,0.004893484,0.004531627,0.00440119,0.004089825,0.004047748,0.003854197,0.003559662,0.003252505,0.002941139,0.002600321,0.002343655,0.001986005,0.001582072,0.001430597,0.001274914,0.000866774,0.000475463,0.000551201,0.000546993,0.000412349,0.000223005,0.000180928,0.000218797,0.000239835,0.000201967,0.000147267,0.000298742,0.000290327,6.31E-05,0.000256666,0.000210382,0.000206174,0.000164098,0.000164098,0.000298742,0.000336611,0.000138852,0.000218797,0.000248251,0.000147267,0.000227212,0.000227212,0.000201967,0.000126229,0.000349234,0.000307158,0.000353442,0.000277704,0.000273497,0.000185136,0.000138852,0.000122022,0.000168306,0.000227212,0.000239835,0.000218797,0.000185136,0.000134644,8.42E-05,8.42E-05,7.99E-05,5.89E-05,5.47E-05,6.73E-05,7.15E-05,7.15E-05,7.15E-05,6.73E-05,7.57E-05,8.84E-05,0.000100983,0.000113606,0.000113606,0.000134644,0.000193551,0.000244043,0.000281912,0.000193551,0.000206174,0.000151475,0.000155683,0.000281912,0.000138852,0.000244043,0.000147267,0,0.000100983,2.1E-05,4.21E-05,0.000168306,0.000206174\nSRI-0000484.txt,NC1=C(C2=C(C=CC=C2)C=C1C(O)=O)[N+]([O-])=O,0.428137728,0.425866481,0.425109398,0.425109398,0.426623563,0.428137728,0.430787517,0.43457293,0.440251049,0.449222476,0.4618279,0.478672986,0.499341338,0.524287207,0.55294278,0.585535182,0.620550248,0.658215102,0.697886226,0.739222931,0.780711052,0.821139258,0.859750466,0.895787593,0.927698621,0.955597111,0.977325379,0.992921279,1,0.997198795,0.981943582,0.954188938,0.913685023,0.862563027,0.805248096,0.745688415,0.686847963,0.633155671,0.585947792,0.546057114,0.512787124,0.485517012,0.461793831,0.44113305,0.423144769,0.406110413,0.389992126,0.373858698,0.357233166,0.339104826,0.319174629,0.297071605,0.273075875,0.248360916,0.223547537,0.199881138,0.17736929,0.156504096,0.137300698,0.119403268,0.102830731,0.087617159,0.073883682,0.061634087,0.051678452,0.043157488,0.036476235,0.03110852,0.027012704,0.023935163,0.021690414,0.020066472,0.018688582,0.017776297,0.017462108,0.01706464,0.016754236,0.016996502,0.0173864,0.018219191,0.019184471,0.020312524,0.021834259,0.023450631,0.025101071,0.027054343,0.028882698,0.030941962,0.033141287,0.035249762,0.037240889,0.03936072,0.041366988,0.04303257,0.044834426,0.046412943,0.0478514,0.049252002,0.050486047,0.051727662,0.05248853,0.053518162,0.054241176,0.054805203,0.055244311,0.055630423,0.055952183,0.056236089,0.056448072,0.056784973,0.056822828,0.056943961,0.05707645,0.057125661,0.057015884,0.057049952,0.057110519,0.057004527,0.057061309,0.056834184,0.056406432,0.055630423,0.054971761,0.054093545,0.053166119,0.051856366,0.050584468,0.048862105,0.047105674,0.045065336,0.043051497,0.041276138,0.038785337,0.036355102,0.034155777,0.03143028,0.028825916,0.026350257,0.023848099,0.021489787,0.019101192,0.016663386,0.014619263,0.012389655,0.010485593,0.008842724,0.007790379,0.007214996,0.006401133,0.005011886,0.003456082,0.00206305,0.001124268,0.000609451,0.000336902,0.0001817,7.95E-05,3.03E-05,0,9.46E-05,0.000200627,0.000344473,0.000605666,0.00110534,0.001866208,0.002873128,0.004020108,0.005257938,0.006064231,0.007483761,0.008793513,0.010470451,0.011889981,0.013604773,0.015364989,0.017219842,0.019237466,0.021190739,0.02317051,0.025229775,0.027171691\nSRI-031197.txt,COC(=O)\\C=C(\\O\\N=C(/N)CC1=CC2=CC=CC=C2C=C1)C(=O)OC,1,0.984469755,0.96140109,0.939129023,0.922924857,0.909285034,0.896715776,0.892876624,0.901923777,0.908515736,0.902931087,0.84536706,0.730325476,0.605620729,0.511939118,0.451176636,0.414989365,0.394285066,0.381609383,0.373843519,0.370948897,0.372645342,0.379577457,0.392981913,0.412505598,0.435694746,0.460673067,0.485669107,0.508858154,0.529499638,0.549225459,0.570398406,0.596288077,0.627502883,0.659606087,0.688485085,0.713878518,0.735506337,0.753163896,0.769020528,0.786771335,0.809081902,0.837853273,0.86951674,0.89553531,0.91475827,0.928723302,0.936913969,0.938465274,0.935150445,0.93028549,0.927877438,0.92962034,0.934158899,0.936614103,0.927657171,0.901937588,0.865249417,0.825725308,0.785607658,0.747725933,0.711288627,0.679102979,0.655767409,0.641464815,0.631218922,0.615145793,0.586464428,0.54535464,0.496673809,0.443496184,0.384033411,0.320599978,0.260208867,0.209007028,0.169277433,0.138715559,0.116395301,0.102556952,0.094738889,0.088714538,0.084820258,0.084112769,0.083849272,0.079164572,0.072293066,0.066202994,0.062009018,0.059336282,0.057200186,0.053998482,0.051630039,0.051807731,0.051689927,0.046013817,0.03933658,0.036830675,0.036293712,0.03189398,0.024375307,0.017947649,0.01427572,0.012273756,0.010548146,0.009131373,0.00798996,0.006607611,0.005140701,0.004374926,0.004038995,0.004100372,0.003885908,0.003229968,0.002852473,0.002440119,0.002146838,0.001928998,0.001643684,0.001426995,0.001289981,0.001161986,0.001049058,0.000960348,0.000816627,0.00065138,0.000506547,0.000432155,0.000418233,0.000338105,0.000148742,6.79E-05,0.000118642,0.000107327,6.23E-05,1.34E-05,1.29E-11,1.8E-05,2.35E-05,2.27E-05,3.51E-05,4.55E-05,5.08E-05,9.15E-05,0.00018027,0.00024244,0.000267462,0.000415013,0.000781451,0.000909025,0.000880551,0.000763129,0.000608307,0.000676824,0.000576465,0.000475938,0.000660215,0.000909817,0.000788029,0.001033408,0.001555264,0.001577748,0.001054115,0.001227676,0.001408322,0.001264053,0.001023514,0.000893746,0.001460744,0.002470773,0.002295333,0.00071407,0.000316543,0.001409227,0.002307682,0.002232066,0.001664353,0.000914401,0.00096669,0.002261198,0.003174562,0.002096731\nSRI-1053045-001.txt,Cc1nc(sc1C)C1=C(N)N(CC1=O)c1ccc(Oc2ccccc2)cc1,0.846314426,0.83191765,0.817520875,0.795925713,0.77433055,0.759933775,0.731140225,0.709545062,0.687949899,0.666354737,0.637561186,0.615966024,0.610207314,0.604448604,0.601569248,0.5950907,0.586452635,0.575655053,0.564137633,0.551180536,0.537503599,0.520947308,0.503671178,0.487834725,0.46767924,0.446084077,0.430967463,0.411531817,0.391376332,0.374100202,0.355384394,0.337388425,0.327166715,0.316081198,0.304347826,0.29995681,0.293694212,0.284768212,0.278865534,0.27433055,0.270011517,0.262093291,0.26151742,0.259717823,0.260725597,0.263964872,0.26634034,0.270875324,0.276130147,0.286855744,0.295421826,0.305787504,0.31723294,0.330909876,0.345882522,0.360423265,0.37870717,0.396991074,0.414771091,0.433774834,0.452130723,0.473581918,0.492153758,0.514036856,0.536135906,0.556075439,0.576950763,0.595018716,0.618413475,0.645191477,0.668010366,0.688957673,0.712928304,0.734307515,0.754031097,0.774114598,0.787503599,0.808954794,0.828606392,0.845234667,0.859343507,0.878635186,0.897638929,0.913331414,0.928520012,0.938021883,0.948891448,0.958753239,0.970198675,0.977469047,0.98365966,0.990426145,0.994889145,0.996184855,0.997192629,0.998848258,1,0.997840484,0.992729629,0.987114886,0.982579902,0.968830982,0.957385546,0.940973222,0.920673769,0.902101929,0.884249928,0.858119781,0.841851425,0.819536424,0.796789519,0.772530953,0.751223726,0.727397063,0.702994529,0.674848834,0.64691909,0.613806507,0.58767636,0.550388713,0.513173049,0.477972934,0.446228045,0.412467607,0.378635186,0.355960265,0.329758134,0.305643536,0.285991938,0.264972646,0.248200403,0.233947596,0.221494385,0.209832997,0.196012093,0.18406277,0.172041463,0.163835301,0.153829542,0.142600058,0.133818025,0.123308379,0.11107112,0.104808523,0.0950907,0.086524618,0.080837892,0.076878779,0.071911892,0.063777714,0.054635762,0.046141664,0.040023035,0.035919954,0.032896631,0.030449179,0.028001728,0.025770227,0.023610711,0.021307227,0.018931759,0.01598042,0.012957098,0.009789807,0.007414339,0.005902678,0.004391016,0.004534984,0.004750936,0.004678952,0.002159516,0.001511661,0.004894904,0.002519436,0.002375468,0,0.0022315,0.002879355,0.000575871,0.0022315,0.002951339\nSRI-1053333-001.txt,CC[C@@H](C)[C@H](NS(=O)(=O)c1ccc(F)cc1)C(O)=O,0.987200172,0.998063892,1,0.992578251,0.974938152,0.947940196,0.912444875,0.86920512,0.817575562,0.761105733,0.702054426,0.64031408,0.57835861,0.516940949,0.458750134,0.403355921,0.353232225,0.307518554,0.267505647,0.232548134,0.203183823,0.178337098,0.157792836,0.140905668,0.127030225,0.115628697,0.106593525,0.098526406,0.092632032,0.087404539,0.082564268,0.077734753,0.073636657,0.069861246,0.067215231,0.064407874,0.060804561,0.056652684,0.053382812,0.051887706,0.051274605,0.05016672,0.04798322,0.044799398,0.04073357,0.036452619,0.033849629,0.031375713,0.028955577,0.026858126,0.023921695,0.021168119,0.018091858,0.014961816,0.011681187,0.009368614,0.007550823,0.005872862,0.004635904,0.003312897,0.003312897,0.002732064,0.001968377,0.001226202,0.001075616,0.000806712,0.000795956,0.000494783,0.000677638,0.000462515,0.000570076,0.000634613,0.000354953,0.000301172,0.000570076,0.000118318,0.000247392,0.000236635,0.00041949,0,0.000387222,0.000107562,0.000290416,0.000365709,0.000150586,0.000182855,0,0,0.000441002,0.000247392,1.08E-05,8.6E-05,0.000441002,0.000268904,0.000193611,0.000236635,0.000333441,0.000129074,0,0.000118318,0.000333441,0.00041949,0.000731419,0.000333441,0.000247392,0.000387222,0.000441002,0.001021835,0.000344197,0.000247392,8.6E-05,0.001000323,0.000752931,0.000311929,0.000301172,0.000225879,0.000548564,0.000344197,0.000311929,0.000666882,0.000344197,0.000430246,0.000258148,0.00041949,0.000451759,0.00069915,0.000763687,0.000903517,0.000484027,0.000172099,0.000548564,0.000537808,0.000774443,0.000752931,0.000333441,0.000570076,0.000935786,0.000354953,0.000623857,0.000484027,0.000570076,0.00111864,0.000666882,0.000537808,0.000484027,0.000548564,0.000656126,0.000763687,0.000828224,0.000849736,0.000806712,0.000763687,0.00069915,0.000623857,0.000537808,0.000473271,0.000408734,0.000354953,0.000301172,0.000268904,0.000236635,0.000204367,0.000182855,0.000215123,0.000311929,0.000516296,0.000527052,0.00055932,0.000656126,0.000742175,0.000430246,0.000473271,0.000193611,0.000677638,0.000656126,0.000666882,0.000258148,0.00027966,0.000268904,0.000494783,0.000763687\nSRI-1052767-001.txt,COc1ccc(cc1)S(=O)(=O)C(CNC(=O)CCN1C(=O)c2ccccc2C1=O)c1ccco1,0.996721216,1,0.993988896,0.977048511,0.943714207,0.896900456,0.838793116,0.78046719,0.726640485,0.68161185,0.648532562,0.626947233,0.612957755,0.603376419,0.594833365,0.586763913,0.580971394,0.578348367,0.579477726,0.584523411,0.591882459,0.597492823,0.595871647,0.582501494,0.559422497,0.53204465,0.505559361,0.481824607,0.460421433,0.440530143,0.420595136,0.400004372,0.378435437,0.356023126,0.332925914,0.309675692,0.286594873,0.264565088,0.243460647,0.224398161,0.207220975,0.191943663,0.177841249,0.164580388,0.151864171,0.140016831,0.129592119,0.120549961,0.112826603,0.105647888,0.098345307,0.090722134,0.082741938,0.074967576,0.067887224,0.061788686,0.05698891,0.053418679,0.050850298,0.048691765,0.046340148,0.04398671,0.041811783,0.040114102,0.039095857,0.038644113,0.038600396,0.038868164,0.039531207,0.040278041,0.041099558,0.042030369,0.04290289,0.043740801,0.044644288,0.045300045,0.045881119,0.046199889,0.04621264,0.046099704,0.045831937,0.045527739,0.044760867,0.043930242,0.042824563,0.041380077,0.039766186,0.037840811,0.035542019,0.033024642,0.030383399,0.027603719,0.024880507,0.022210119,0.019656311,0.017373913,0.015178949,0.01316614,0.011432027,0.009883712,0.008417367,0.007180537,0.006083966,0.005145869,0.004517436,0.003887181,0.003362575,0.002927226,0.002553808,0.002145782,0.001965449,0.001697682,0.001577459,0.001446308,0.001214972,0.000943561,0.000985457,0.000927167,0.000708582,0.000599289,0.000557393,0.000615683,0.000442636,0.000466316,0.000471781,0.000420777,0.0004481,0.000391633,0.000313306,0.000300555,0.000333343,0.000304198,0.000260481,0.000262303,0.000322414,0.000287804,0.000233158,0.000253195,0.00025866,0.000169404,0.000193084,0.000231336,0.00015301,0.000111114,0.000151188,0.000174868,0.000189441,0.000196727,0.000198549,0.000187619,0.000167582,0.000149367,0.000136616,0.000132973,0.000127508,0.000123865,0.000118401,0.000116579,0.000114757,0.000114757,0.000112936,0.000111114,0.000111114,0.000109293,0.000103828,9.65E-05,7.83E-05,0.000103828,8.56E-05,8.01E-05,0.000107471,9.65E-05,0.000102007,0.000127508,8.38E-05,9.47E-05,0.000158475,5.83E-05,0,0.000131151,0.00012933\nSRI-1053315-001.txt,CC(C)C[C@H](N)C(=O)Nc1ccc(Oc2ccccc2)cc1,0.550049088,0.534368762,0.522550356,0.513104937,0.506497797,0.501426119,0.499378836,0.49970454,0.502356702,0.508126317,0.517571736,0.529483201,0.54441906,0.562286257,0.581502799,0.603743736,0.62835766,0.654041755,0.681866191,0.710760798,0.740353342,0.769666712,0.799305785,0.828339979,0.85649012,0.883011739,0.907718722,0.930001535,0.950283595,0.967034092,0.981085897,0.991103625,0.998008552,1,0.998762324,0.993350983,0.983333256,0.969588543,0.952642624,0.931169417,0.907388365,0.881755452,0.853023697,0.822779745,0.790535039,0.757048004,0.7222535,0.68697044,0.651715297,0.616757941,0.581209665,0.545103039,0.508237987,0.471279878,0.435568749,0.401607117,0.370776897,0.342645369,0.317058985,0.293217445,0.269966825,0.247595606,0.226773808,0.207054751,0.189587705,0.173632857,0.159032007,0.145938702,0.133580558,0.121645829,0.110506749,0.099446768,0.089280147,0.079737017,0.070863907,0.062963256,0.055467409,0.048506647,0.042201946,0.035836757,0.029829843,0.024502254,0.019802809,0.01544768,0.011911464,0.009101103,0.006937497,0.005253142,0.004010813,0.003098842,0.002526533,0.002219441,0.001642479,0.001400528,0.001172535,0.001144617,0.001279552,0.001130659,0.000981765,0.000879401,0.000902666,0.000725855,0.000846831,0.000744467,0.000651408,0.000763078,0.000651408,0.000665367,0.000860789,0.000609532,0.000507168,0.000711896,0.000586267,0.000623491,0.000563003,0.00047925,0.000683979,0.00055835,0.000572309,0.000535085,0.000642102,0.000418762,0.000567656,0.000493209,0.000544391,0.00041411,0.000469944,0.000600226,0.000325704,0.000265216,0.000428068,0.000483903,0.000553697,0.000442027,0.00033501,0.00036758,0.000321051,0.00022334,0.000348969,0.00030244,0.00014424,0.000209381,0.000353622,0.000260563,0.000167505,0.000195422,0.000232646,0.000241952,0.000218687,0.000200075,0.000186117,0.00019077,0.000181464,0.000172158,0.000162852,0.00014424,0.000125629,0.00011167,9.77E-05,8.38E-05,6.51E-05,4.19E-05,1.86E-05,0,9.31E-06,6.51E-05,3.72E-05,6.05E-05,0.00019077,0.000134935,7.91E-05,0.00019077,7.44E-05,0.000102364,0.00011167,5.58E-05,0.000158199,4.65E-05,3.72E-05,0.000186117,0.000162852\nSRI-1052777-001.txt,COc1ccc(cc1)C1N(CCc2cc(OC)c(OC)cc12)C(=O)N[C@@H](CCSC)C(O)=O,0.907803013,0.919046548,0.930290083,0.930290083,0.964020688,0.964020688,0.986507758,0.99662694,1,0.99662694,0.992129526,0.978637284,0.959523274,0.923543962,0.892062064,0.854958399,0.805486845,0.752642231,0.684056667,0.619968518,0.553631662,0.483921745,0.415336182,0.352372386,0.301776479,0.253429278,0.208455138,0.183719361,0.163480998,0.144366989,0.135597032,0.119631212,0.109736901,0.105801664,0.104564875,0.098830672,0.098268496,0.096806836,0.096919271,0.099842591,0.100966944,0.10613897,0.11266022,0.11727007,0.117832246,0.126602204,0.129413087,0.128288734,0.134247808,0.141106364,0.145266472,0.146053519,0.15448617,0.163818304,0.17191365,0.174274792,0.179896559,0.185293456,0.183044749,0.183944232,0.184281538,0.18664268,0.19293906,0.192489319,0.188441646,0.182932314,0.178884641,0.171239038,0.163143692,0.148864403,0.143355071,0.136721385,0.127051945,0.113222397,0.106701147,0.094220823,0.081628064,0.066561727,0.049696425,0.035754441,0.031819204,0.022149764,0.024735777,0.017427479,0.01765235,0.023836294,0.020013492,0.018889139,0.020912975,0.022936811,0.024398471,0.027771531,0.025297954,0.02878345,0.033168428,0.028333708,0.026085001,0.028221273,0.023836294,0.024623342,0.027771531,0.023948729,0.019676186,0.017989656,0.024960648,0.023836294,0.023836294,0.024061165,0.02900832,0.02900832,0.023274117,0.024960648,0.02563526,0.027996402,0.022149764,0.015628514,0.024848212,0.025185518,0.024735777,0.024960648,0.01933888,0.013829548,0.01619069,0.016752867,0.018889139,0.017427479,0.011468406,0.004160108,0.00798291,0.004272543,0.009219699,0.002361142,0.003597931,0.005734203,0.007645604,0.003822802,0.00798291,0.00629638,0.00337306,0.005734203,0.006633686,0.010231617,0.004722285,0.003710367,0.004947155,0.005621767,0.006183944,0.005959074,0.005509332,0.004609849,0.00337306,0.002810884,0.002586013,0.002923319,0.003260625,0.003260625,0.003260625,0.003260625,0.003260625,0.00337306,0.003485496,0.00337306,0.003485496,0.003710367,0.00337306,0.00314819,0.000674612,0.00314819,0.008095345,0.003935237,0.002698448,0.004384979,0.003260625,0.010006746,0.004947155,0.003485496,0,0.000449741,0.001236789,0.007533168,0.008207781\nSRI-1053305-001.txt,CC[C@@H](C)[C@H](NS(=O)(=O)c1ccc(OC)cc1)C(O)=O,0.208142006,0.22794571,0.250723597,0.277781405,0.307523231,0.342197848,0.380354436,0.422573321,0.46783893,0.515208229,0.564898842,0.615750111,0.666819003,0.717742813,0.767505967,0.815092889,0.859270382,0.899820824,0.934495441,0.963221693,0.984113512,0.996372948,1,0.993326224,0.976859408,0.951252421,0.916360181,0.871210637,0.818959326,0.758830058,0.692418736,0.62296069,0.553045636,0.485633247,0.423168157,0.367318811,0.317874838,0.27685288,0.242424902,0.214235454,0.192182978,0.174570013,0.160917789,0.149579625,0.139590723,0.130102355,0.121861693,0.114977549,0.108702749,0.104277745,0.100208193,0.096341755,0.091271137,0.085431583,0.078329815,0.070408334,0.062494106,0.055805822,0.050858523,0.047985898,0.046172372,0.043851059,0.039498596,0.033535723,0.026361414,0.020072106,0.014667798,0.010583738,0.007464473,0.005621931,0.004541069,0.003525495,0.002684018,0.002335821,0.002002133,0.001857051,0.001646682,0.001247706,0.001320247,0.001327501,0.00081246,0.000892255,0.000935779,0.000718156,0.000739919,0.000507787,0.000507787,0.000558566,0.00056582,0.000616599,0.000573074,0.000391722,0.000210369,0.000486025,0.00040623,0.000253894,0.000326435,0.000602091,0.00056582,0.000304672,0.000311926,0.000493279,0.000377213,0.000413484,0.000558566,0.000427992,0.000217623,0.000551312,0.000239385,0.000290164,0.000413484,0.000391722,0.000623853,0.000515041,0.00040623,0.000377213,0.000290164,0.000645615,0.000667378,0.000507787,0.000536804,0.000304672,0,0.000362705,0.000326435,0.000710902,0.000710902,0.000754427,0.000224877,0.000174098,0.000275656,0.000486025,0.000536804,0.000377213,0.000275656,0.000500533,0.000311926,0.00040623,0.000210369,0.000311926,0.000181353,0.000232131,0.000413484,0.000377213,0.000275656,0.000166844,0.00015959,0.000166844,0.00015959,0.000166844,0.000174098,0.000174098,0.000188607,0.000210369,0.000224877,0.000217623,0.000210369,0.000203115,0.000210369,0.000203115,0.000188607,0.00015959,0.000152336,0.000137828,0.000217623,0.000384468,0.000384468,0.000217623,0.000369959,0.000217623,0.000166844,0.000355451,0.000239385,0.000377213,0.000348197,7.98E-05,0.000108812,0.000101557,0.000166844,0.000195861,9.43E-05\nSRI-031142.txt,COC1=C(NC(=O)CC2N(C3=C(NC2=O)C=CC=C3)S(=O)(=O)C2=CC=C(OC3=CC=CC=C3C)C=C2)C=CC=C1,0.947310235,0.934213029,0.913262172,0.890156472,0.869497694,0.848070351,0.824596194,0.804576224,0.790361699,0.771640362,0.752188551,0.735626759,0.721469405,0.709143312,0.700420256,0.694670135,0.691054927,0.689769848,0.69142277,0.696079598,0.703757954,0.713118925,0.723789735,0.737154619,0.753598668,0.769199778,0.785366295,0.802720964,0.818772185,0.832340255,0.846323575,0.858832075,0.870985174,0.884655965,0.896674563,0.905125338,0.912649992,0.920419558,0.927731692,0.935421694,0.945519532,0.955631705,0.966351865,0.977430556,0.98467618,0.99040293,0.996213309,1.000399022,1.001143946,0.998661658,0.992158621,0.982366642,0.969736116,0.954757397,0.938551388,0.920128114,0.893042499,0.860047963,0.828492013,0.800007275,0.773534366,0.743746296,0.710221471,0.676279896,0.642945494,0.609322203,0.575763696,0.542392969,0.508903625,0.475484774,0.442798081,0.410971491,0.379632207,0.348687956,0.318778261,0.29049235,0.263852759,0.239211085,0.216762912,0.196038719,0.177317682,0.160179375,0.144625516,0.130837659,0.118357214,0.107284613,0.09734737,0.088469264,0.08068654,0.073658839,0.067390123,0.061882764,0.057044369,0.052744652,0.048914344,0.045613741,0.042641803,0.039959839,0.037655949,0.035494957,0.033499688,0.031728308,0.030114201,0.028610424,0.02738587,0.026324047,0.025012189,0.023469326,0.022237305,0.021470951,0.021016179,0.02029199,0.019231789,0.018363667,0.017365426,0.016379062,0.015401211,0.014363796,0.013414833,0.01248648,0.011633179,0.010873047,0.010176446,0.009555101,0.008970461,0.008453297,0.007993552,0.007571646,0.007218664,0.006789114,0.006394701,0.006140306,0.005933651,0.005671413,0.005433916,0.005230699,0.005032495,0.004850218,0.004692493,0.004527513,0.004366709,0.004245943,0.004153193,0.004019431,0.003904526,0.003799355,0.003745438,0.003855793,0.003846495,0.003596547,0.003242209,0.002998464,0.00288366,0.002598976,0.002397181,0.002415391,0.002376071,0.002167922,0.00224564,0.00251411,0.002400304,0.001859134,0.001887335,0.001805201,0.001533946,0.001331664,0.001114296,0.00146857,0.002143388,0.001836919,0.000467641,0.000130335,0.0009509,0.001470748,0.001230373,0.000742834,0,5.13E-07,0.001021942,0.001609427,0.000545083\nSRI-1053073-001.txt,CC(C)CCNC(=O)C[C@@H]1NC(=O)N(CCc2c[nH]c3ccccc23)C1=O,0.994930605,1,0.994375746,0.977376878,0.945548138,0.895106394,0.826656948,0.742898433,0.64937944,0.552556514,0.460575994,0.379112578,0.308998555,0.251394084,0.205920852,0.170737736,0.143927949,0.123826914,0.108820495,0.097193674,0.088618577,0.082262918,0.077395289,0.073687821,0.071190955,0.069400273,0.068391438,0.067987904,0.068227502,0.068956386,0.070161943,0.071803822,0.073945074,0.076363756,0.079185971,0.082441986,0.086129277,0.090056167,0.094263008,0.098706926,0.103287036,0.107983163,0.112876012,0.117937841,0.123062722,0.12809933,0.133130894,0.138144803,0.143012431,0.147713602,0.152074291,0.156185293,0.160074351,0.163506912,0.166288774,0.168190428,0.169504435,0.170593977,0.172056787,0.173968529,0.176248496,0.178296431,0.179438936,0.179232125,0.177179146,0.173093365,0.166909207,0.160172713,0.155413534,0.153178965,0.152820828,0.151020058,0.144919129,0.133567215,0.118348941,0.102437093,0.087266738,0.073957684,0.062729352,0.053165598,0.045074742,0.037985155,0.032075905,0.027026686,0.022502062,0.018809726,0.01580592,0.013162773,0.010960991,0.00931659,0.007891611,0.006807113,0.005967258,0.005157668,0.004597765,0.004166488,0.003815918,0.003538488,0.003180352,0.002950842,0.002630537,0.002254746,0.001947051,0.001657011,0.001414891,0.001235823,0.001066843,0.001044144,0.000943261,0.000807068,0.000895341,0.000827245,0.000751582,0.000781847,0.000779325,0.000610345,0.00076167,0.00076167,0.000691052,0.000643132,0.000522072,0.000638088,0.00058008,0.000499373,0.00053216,0.000605301,0.000441365,0.000373269,0.000474152,0.000577558,0.000363181,0.000292562,0.00027743,0.000305173,0.000380835,0.000426233,0.000267341,0.000244642,0.000327871,0.000247165,0.000224466,0.000201767,0.000237076,0.000226988,0.000146281,0.000191679,0.000206811,0.000201767,0.000199245,0.000174024,0.000151325,0.000131149,0.00010845,0.000100883,9.58E-05,9.08E-05,8.58E-05,8.58E-05,8.32E-05,8.07E-05,7.82E-05,8.07E-05,8.32E-05,8.07E-05,7.31E-05,7.06E-05,0.000161414,0.000171502,9.08E-05,0.000199245,4.54E-05,6.05E-05,0,0.000126104,0.000148803,5.04E-05,0.000151325,0.000204289,0.000118538,0.000158891,9.33E-05\nSRI-031195.txt,COC(=O)\\C=C(/O\\N=C(/N)C1=CC2=CC=CC=C2C=C1)C(=O)OC,0.876258987,0.873731038,0.863916135,0.855184454,0.851537979,0.847644352,0.841274735,0.841543515,0.854028754,0.863151799,0.87011677,0.880603701,0.894603044,0.910528968,0.931252889,0.951435579,0.968989882,0.982827374,0.991610043,0.99677551,1.000000002,0.993782774,0.965169826,0.908820461,0.837724736,0.776628294,0.736678188,0.714775874,0.702483719,0.695011021,0.694099092,0.697685581,0.704154271,0.713915041,0.726740846,0.740780717,0.755723216,0.770121351,0.782962684,0.796563075,0.813815691,0.830633355,0.84608003,0.861312783,0.875752485,0.892441182,0.909504803,0.92332599,0.932852258,0.938840737,0.939249383,0.937210823,0.932027524,0.924456244,0.920827259,0.91889985,0.908383525,0.889827236,0.872063252,0.860429348,0.854659529,0.84455942,0.829387848,0.814889797,0.802290586,0.79280942,0.786260187,0.785163647,0.788946267,0.79232281,0.799176372,0.808410167,0.815164547,0.810967993,0.785780261,0.738557815,0.676140782,0.611319739,0.555271295,0.511329584,0.478977714,0.453388141,0.429699138,0.406082352,0.383721511,0.364574942,0.34993948,0.339712107,0.33143425,0.32159295,0.311761267,0.305524054,0.306046149,0.315019719,0.330553066,0.342219806,0.340439074,0.326455545,0.309474264,0.294784288,0.284140156,0.277869622,0.272426414,0.262117461,0.246797746,0.234324791,0.229812409,0.23765614,0.264420456,0.310244255,0.349294971,0.353597746,0.317436448,0.25940935,0.199279707,0.147936261,0.10830727,0.079148451,0.058278229,0.043648483,0.033518063,0.026519451,0.021630478,0.018111655,0.015499403,0.013527324,0.011960317,0.01063291,0.009504125,0.008382621,0.00743371,0.006723672,0.006073831,0.005461615,0.004924924,0.004448491,0.004044051,0.003727199,0.003385402,0.003061874,0.002787231,0.002553649,0.002358766,0.002186411,0.002012855,0.001831668,0.001772428,0.001950193,0.001948676,0.00174862,0.001479303,0.00126656,0.001210353,0.001029768,0.000905975,0.001004274,0.001083095,0.000891943,0.001042153,0.001441416,0.001408745,0.000898995,0.001036774,0.001079261,0.000884924,0.000697842,0.000485583,0.001001939,0.001829475,0.001583534,0.000263101,2.75E-11,0.000891115,0.001538002,0.001433866,0.001010706,0.000345453,0.000387646,0.001438641,0.002124516,0.001217603\nSRI-1053063-001.txt,OC(=O)C(Cc1ccc(Cl)cc1)NS(=O)(=O)c1ccc(Cl)cc1,1,0.933855434,0.873002434,0.817440999,0.769816912,0.724838607,0.685151868,0.656048259,0.626680072,0.599957667,0.571912372,0.542808763,0.516086358,0.487247328,0.455762515,0.427981797,0.400201079,0.374536988,0.351518679,0.331146153,0.311302783,0.294369775,0.278759657,0.262620383,0.247274844,0.234045931,0.221610752,0.209440152,0.197798709,0.186607048,0.176129749,0.166102233,0.157397608,0.150227537,0.142184358,0.135622817,0.13120436,0.125145518,0.120303736,0.115091544,0.111149328,0.108873955,0.104958197,0.102259498,0.098449571,0.096385861,0.095248174,0.094295693,0.093951741,0.094031114,0.092231982,0.091967404,0.0912795,0.092099693,0.093396127,0.09628003,0.098925812,0.102656366,0.104931739,0.108715208,0.111334533,0.114059689,0.116546725,0.120991639,0.125224892,0.131072071,0.135622817,0.138400889,0.1382686,0.135649275,0.132712456,0.130886866,0.128373373,0.128002963,0.127632554,0.12511906,0.123505133,0.117472748,0.1078421,0.096862102,0.087416658,0.076595407,0.066382686,0.05818076,0.050640279,0.045666208,0.040612763,0.035770981,0.032357921,0.028336332,0.026801778,0.024235369,0.023150598,0.021642502,0.021986454,0.022303948,0.020822309,0.019658165,0.017859033,0.017091756,0.016112816,0.01277913,0.010609588,0.00936607,0.008836914,0.006296963,0.004974071,0.00304265,0.00145518,0.002169542,0.002169542,0.002566409,0.001931421,5.29E-05,0.000423325,0.000820193,0.000396867,0.00097894,0.00145518,0.000502699,0.000476241,0.000343952,0,0.001402265,0.001693301,0.001243518,0.002539951,0.003492433,0.00267224,0.002275373,0.00243412,0.001428723,0.002222457,0.002936819,0.00206371,0.001190602,0.002487036,0.002989734,0.00267224,0.002725156,0.002010795,0.002301831,0.001799132,0.000555614,0.00097894,0.000926024,0.00097894,0.001084771,0.001111229,0.001084771,0.00097894,0.000873108,0.000740819,0.000714361,0.00060853,0.000502699,0.000529157,0.000529157,0.000529157,0.000502699,0.000529157,0.000661446,0.00084665,0.000899566,0.000899566,0.000793735,0.000793735,0.00145518,0.001031855,0.000555614,0.000555614,0.001269976,0.002354747,0.000634988,0.000661446,0.001746217,0.001005397,0.00097894,0.00084665,0.001084771,0.000529157\nSRI-0000653.txt,CC(=O)NCC(NC(C)=O)C1OC2OC(C)(C)OC2C1OC(C)=O,1,0.91958042,0.825174825,0.737762238,0.673076923,0.597902098,0.524475524,0.461538462,0.407342657,0.347902098,0.29020979,0.25,0.197552448,0.153846154,0.117132867,0.097902098,0.083916084,0.075174825,0.068181818,0.059440559,0.053496503,0.046328671,0.036363636,0.034440559,0.03006993,0.027972028,0.023426573,0.023076923,0.021678322,0.017657343,0.015034965,0.018006993,0.015909091,0.016083916,0.014160839,0.010664336,0.011013986,0.01013986,0.012412587,0.015384615,0.01013986,0.017832168,0.013636364,0.012587413,0.012762238,0.012762238,0.015909091,0.013286713,0.013811189,0.019055944,0.013811189,0.012062937,0.008041958,0.01048951,0.008216783,0.008916084,0.015734266,0.007342657,0.009615385,0.011538462,0.007867133,0.012587413,0.006468531,0.014160839,0.012762238,0.007692308,0.013461538,0.011888112,0.015734266,0.011538462,0.006468531,0.01013986,0.008216783,0.021678322,0.005769231,0.007517483,0.017657343,0.022027972,0.017307692,0.011363636,0.020454545,0.013111888,0.012937063,0.017832168,0.016608392,0.016258741,0.012762238,0.011363636,0.016083916,0.010839161,0.01013986,0.009090909,0.000874126,0.013111888,0.010839161,0.01048951,0.009440559,0.001573427,0.010839161,0.010314685,0.003496503,0.005769231,0.00541958,0.01520979,0.007692308,0.003321678,0.003846154,0.003496503,0.004020979,0.006993007,0.004895105,0.00472028,0.006993007,0.005769231,0.012937063,0.012062937,0.006993007,0.009965035,0.014335664,0.012762238,0.006993007,0.003146853,0.00541958,0.01451049,0.012237762,0.00979021,0.008391608,0.013811189,0.011363636,0.010664336,0.000524476,0.001923077,0.016783217,0.018531469,0.017132867,0.007342657,0.013986014,0.00979021,0.004895105,0.01048951,0.008041958,0.007692308,0.007517483,0.002797203,0.007342657,0.003321678,0.002097902,0.001748252,0.002447552,0.002797203,0.002447552,0.001923077,0.001748252,0.001748252,0.001923077,0.002272727,0.002272727,0.002447552,0.002797203,0.002972028,0.002972028,0.002972028,0.002622378,0.002097902,0.002097902,0.003321678,0.003846154,0.005594406,0,0.001923077,0.006293706,0.005594406,0.005594406,0.005244755,0.002622378,0.007517483,0.001223776,0.001573427,0.001923077,0.002622378,0.004020979\nSRI-1052812-001.txt,COC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)Nc1cc(OC)c(OC)cc1C(=O)OC,0.974260584,0.989735816,0.999210447,1,0.993051937,0.979629542,0.959416994,0.936204147,0.911412194,0.886857107,0.867086709,0.854406493,0.849037535,0.851706223,0.860233392,0.872882025,0.888341466,0.904685205,0.919197183,0.931403667,0.93895179,0.941936299,0.939393939,0.929619278,0.910559477,0.879119491,0.833720214,0.775482811,0.708023434,0.636278365,0.566279786,0.503570357,0.451230913,0.410823188,0.382497197,0.36514283,0.356552497,0.355087088,0.359345935,0.367175139,0.378070965,0.390849085,0.405005764,0.419937783,0.434711892,0.449143335,0.462112527,0.473262589,0.482078734,0.488445687,0.491771282,0.492726641,0.491308605,0.487605603,0.481393402,0.471835078,0.458886415,0.442282123,0.421979566,0.398240877,0.371735595,0.343810697,0.315999495,0.28946421,0.264888594,0.242380027,0.222633316,0.206924377,0.196636506,0.1914223,0.189527374,0.187163453,0.181278128,0.171323448,0.159033272,0.147133134,0.137034756,0.129293982,0.123757639,0.120038846,0.117750722,0.116815892,0.116891689,0.117894421,0.119824088,0.122301704,0.125482022,0.128959212,0.132734852,0.136783678,0.140982519,0.145189256,0.149309141,0.153386391,0.157316784,0.161114533,0.164688048,0.167839942,0.170676015,0.173033619,0.175118038,0.176869266,0.178105705,0.178863676,0.178903153,0.178727873,0.177998326,0.176307104,0.174462709,0.171985093,0.169011638,0.165453914,0.16154247,0.15705939,0.152323653,0.147188403,0.141579421,0.135733573,0.129511899,0.1230502,0.116369005,0.109561482,0.102480774,0.095409541,0.088213558,0.081022313,0.07407425,0.067176718,0.060591849,0.054400177,0.048758034,0.043368547,0.038166975,0.033543354,0.029224501,0.025174096,0.021666904,0.018500797,0.015757892,0.013196583,0.011115322,0.009291455,0.007745511,0.00638906,0.005310531,0.004470447,0.00397145,0.003747217,0.003474032,0.00294661,0.002319706,0.001755965,0.001389613,0.001178013,0.001050105,0.00095378,0.000871666,0.000791132,0.000713756,0.000636379,0.000555845,0.000462678,0.000369511,0.000279502,0.000203705,0.000164227,0.000154752,0.000126328,0.000116854,9.79E-05,5.68E-05,6.16E-05,7.26E-05,0.000150015,6.63E-05,5.05E-05,0,3.95E-05,1.74E-05,4.26E-05,8.84E-05\nSRI-1052802-001.txt,CC(Oc1ccc2c(C)c(C)c(=O)oc2c1C)C(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(O)=O,1,0.984524117,0.961310291,0.927779211,0.876192933,0.819448027,0.752385865,0.68274439,0.611039464,0.542687645,0.481299974,0.424297137,0.378385349,0.340211504,0.308743874,0.282950735,0.263347949,0.247614135,0.236265153,0.227495486,0.222336858,0.214856848,0.207892701,0.199896827,0.189579572,0.178230591,0.169202992,0.160691256,0.155016766,0.149858138,0.146195512,0.142120196,0.137606397,0.133015218,0.129017281,0.124993552,0.121408305,0.12210472,0.127598659,0.134820738,0.140572608,0.148052618,0.157183389,0.165050297,0.17304617,0.18142894,0.188418881,0.195821511,0.204152695,0.211400567,0.216946092,0.222078927,0.228088728,0.232912045,0.23714212,0.240856332,0.243590405,0.245653856,0.247691514,0.250296621,0.251741037,0.251741037,0.250786691,0.249393861,0.248052618,0.244570544,0.239798814,0.23500129,0.230616456,0.227263348,0.226283209,0.223961826,0.218313129,0.213618777,0.206293526,0.199638896,0.194351303,0.189785917,0.187412948,0.187825638,0.188341501,0.1902244,0.192262058,0.196440547,0.201779727,0.207196286,0.213360846,0.218880578,0.224116585,0.231029146,0.235697704,0.240211504,0.245318545,0.249909724,0.253340212,0.257647666,0.261387671,0.263812226,0.265179262,0.267655404,0.26853237,0.268145473,0.267578024,0.264714986,0.262574155,0.258859943,0.251689451,0.246143926,0.238767088,0.232215631,0.225199897,0.218932164,0.212045396,0.203198349,0.197523859,0.191462471,0.18323446,0.176141346,0.166159402,0.155197318,0.146685582,0.134794945,0.122285272,0.111761671,0.101212278,0.089682744,0.079803972,0.070905339,0.061774568,0.054655662,0.04864586,0.043203508,0.035697704,0.033660046,0.028398246,0.02522569,0.023781274,0.021305133,0.01684292,0.016069126,0.015140573,0.011864844,0.009130771,0.010033531,0.008692288,0.007583183,0.006732009,0.006293526,0.005726077,0.004771731,0.003894764,0.003095177,0.002553521,0.002295589,0.002140831,0.002037658,0.001882899,0.00172814,0.001573381,0.00139283,0.001238071,0.001083312,0.001083312,0.001057519,0.000928553,0.000851174,0.000670622,0.00049007,0.000696415,0.002579314,0.00082538,0.000799587,0.000773794,0.001134898,0.001779727,0.001134898,0,0.000928553,0.001521795,0.00090276,0.001986072\nSRI-0000690.txt,[O-][N+](=O)C1=CC=C(O1)\\C=C\\C1=CC=NC=C1,0.064748551,0.064164749,0.062607943,0.061294387,0.059980832,0.05701317,0.054483359,0.051223796,0.049034537,0.046358776,0.043439764,0.040666702,0.037504439,0.034925979,0.032006967,0.029574457,0.027287897,0.024806737,0.022276927,0.019698466,0.017353526,0.014823716,0.012323096,0.010221407,0.008372699,0.006898598,0.005910999,0.005526663,0.005658018,0.006266146,0.007370505,0.008761901,0.010673854,0.012741487,0.014964802,0.017557857,0.020384434,0.023575887,0.027180867,0.030878282,0.034565967,0.038749884,0.042977587,0.046971768,0.050674049,0.054079563,0.05708128,0.059017558,0.060258138,0.060905186,0.060515984,0.059299729,0.057324531,0.054731475,0.051856248,0.048319379,0.044597639,0.040258041,0.035874658,0.031301539,0.026601929,0.021527714,0.016584853,0.012099305,0.008124583,0.004850425,0.00232548,0.000812458,0,0.000194601,0.000432987,0.00125031,0.001907088,0.002943337,0.00375093,0.005132596,0.006558047,0.00841162,0.0108344,0.013831252,0.016862159,0.019786036,0.022855864,0.025881907,0.028698753,0.031311269,0.033952975,0.03655576,0.039285037,0.042062963,0.044845755,0.047716116,0.050576748,0.053685496,0.056711538,0.060039212,0.062938764,0.066047512,0.069375185,0.0729753,0.076361354,0.080063634,0.084072411,0.088353629,0.092595926,0.097008499,0.101464858,0.106183927,0.111282468,0.116361549,0.121961187,0.128310038,0.135028631,0.1421121,0.150557775,0.159451031,0.169078906,0.179796545,0.191433673,0.203824879,0.217052868,0.231200346,0.245921897,0.261110489,0.277695343,0.295087789,0.313287829,0.332217622,0.35107444,0.370077208,0.38892916,0.408442756,0.429951009,0.451074926,0.47379457,0.49698612,0.520284701,0.543923833,0.56752891,0.591751845,0.615765584,0.639837703,0.663934147,0.687475979,0.711441068,0.733056352,0.748629281,0.757984714,0.769383456,0.794233978,0.823370583,0.849953053,0.871208325,0.885492024,0.895095573,0.902801765,0.910979864,0.920106641,0.928211765,0.938204516,0.94765725,0.959080317,0.971899644,0.984607077,0.99524201,1,0.999751884,0.995855003,0.990415911,0.983507582,0.974804061,0.964636169,0.953101207,0.940559185,0.926474952,0.911023649,0.893840398,0.874973851,0.854613742,0.83226384,0.808327941\nSRI-1052908-001.txt,Cc1nc(sc1C(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(O)=O)-c1ccccc1F,1,0.998564919,0.987443045,0.965199297,0.931833674,0.885552327,0.828149105,0.76141786,0.689663832,0.615757184,0.545438238,0.481326014,0.424927349,0.375811717,0.334840168,0.300469989,0.272091271,0.248089549,0.227603774,0.210024038,0.194776307,0.182147598,0.171348617,0.162271733,0.154916945,0.149176623,0.144835504,0.141606573,0.139418075,0.138234133,0.137839486,0.138341764,0.139357084,0.140885445,0.14303089,0.145599684,0.14872816,0.152276397,0.156255157,0.160485057,0.165095253,0.169913536,0.175531877,0.181648908,0.187834105,0.194345783,0.201449431,0.208843684,0.216521365,0.224572167,0.233114484,0.24164245,0.250794676,0.260093998,0.269529652,0.278800273,0.288135472,0.297811502,0.308086679,0.319183439,0.330660496,0.341958167,0.353392172,0.36400818,0.373433071,0.381265023,0.387658307,0.393890145,0.401625229,0.411276145,0.422265275,0.431693754,0.437304919,0.438872744,0.437624224,0.435629462,0.43429125,0.434133391,0.435141535,0.437154235,0.43915976,0.441678327,0.444071324,0.446005095,0.44738636,0.448423205,0.448878843,0.448853729,0.447684139,0.445800596,0.442873031,0.439665626,0.435302981,0.429903491,0.423764934,0.41705952,0.408850859,0.399533599,0.389929322,0.378796685,0.366688193,0.353872924,0.340397517,0.3262835,0.312090554,0.297334338,0.282639113,0.268022818,0.253334768,0.238768701,0.224055538,0.209650917,0.195178129,0.180884727,0.166372475,0.152107775,0.137807197,0.124048362,0.11051914,0.097438381,0.084931654,0.073329028,0.062795537,0.052868367,0.044211244,0.036526388,0.029799447,0.024285151,0.019628314,0.016001148,0.012904962,0.010662648,0.008517203,0.006709002,0.006023751,0.0049008,0.004111506,0.003325799,0.002877336,0.00235712,0.001865605,0.001693395,0.001528361,0.001320274,0.001252108,0.001198292,0.001126538,0.001069135,0.000990206,0.000835934,0.0006709,0.000541743,0.00045205,0.000401823,0.000387472,0.000380296,0.000376709,0.000373121,0.00035877,0.000340832,0.000322893,0.000301367,0.000269078,0.000222437,0.00017221,0.000121982,9.69E-05,0.000150683,0,0.000107631,0.00018656,2.51E-05,0.000373121,9.33E-05,0.000168622,0.000100456,7.18E-05,0.000132745,6.1E-05,0.00018656,0.000132745\nSRI-1052860-001.txt,Cc1cc(=O)c2cc(Cl)ccc2n1CC(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(O)=O,0.998733903,1,0.995895396,0.986338407,0.972493026,0.955870401,0.938185888,0.922502624,0.910535967,0.904450534,0.904981478,0.911740801,0.923156093,0.937042316,0.950520121,0.960117951,0.963916242,0.958239227,0.938716831,0.900529719,0.841349904,0.763035692,0.671917565,0.576306837,0.485311235,0.402992481,0.332766993,0.274318248,0.227587024,0.190780365,0.162342197,0.14100234,0.125022974,0.113460651,0.105253485,0.09971329,0.096331587,0.09453863,0.093944382,0.094379347,0.095647486,0.097632399,0.100166635,0.10326653,0.106613518,0.110236188,0.114212141,0.118357587,0.122623516,0.127046686,0.13154133,0.136127868,0.1406899,0.145057934,0.149182959,0.153095607,0.156810171,0.160453263,0.164406752,0.168546072,0.172850801,0.176863511,0.180600538,0.183549319,0.185521979,0.186220374,0.186095807,0.18572823,0.186026376,0.187096432,0.188282887,0.18799291,0.185272844,0.180467802,0.174359906,0.168019212,0.162174746,0.156998044,0.152333906,0.147849473,0.14344264,0.13895208,0.134471731,0.130064898,0.125792842,0.12169028,0.117849106,0.114095741,0.110818184,0.107900036,0.105231022,0.102725375,0.100566885,0.098604435,0.096582764,0.094636651,0.092672159,0.090840402,0.088931047,0.087113585,0.085240987,0.083458241,0.081595854,0.079537425,0.077303377,0.074667037,0.071720299,0.068405984,0.064572978,0.060317259,0.055765437,0.051080879,0.046230912,0.041476922,0.036816869,0.032338562,0.028164527,0.024517352,0.021145858,0.018242004,0.015791494,0.013516604,0.011760405,0.010214542,0.008925982,0.007835505,0.006934943,0.006191622,0.005548363,0.005109313,0.004617169,0.004216919,0.0039637,0.003600207,0.003306146,0.003063137,0.002891602,0.002642467,0.002493394,0.002387205,0.002315732,0.002080891,0.001937945,0.001905271,0.001733736,0.001709231,0.001682683,0.001668389,0.001625505,0.001531569,0.001427422,0.00132736,0.001243634,0.001186455,0.001141529,0.001100687,0.001065972,0.00102513,0.000984288,0.000939362,0.00088831,0.000831131,0.000771911,0.000708606,0.000637133,0.000555449,0.000490102,0.000508481,0.000426797,0.000422713,0.000310398,0.000249135,0.000249135,0.000308356,0.000232798,0.000191957,8.58E-05,0.000128652,0.000183788,6.33E-05,0\nSRI-1052918-001.txt,COc1cc2cc([nH]c2cc1OC)C(=O)NCC(=O)NCCc1c[nH]c2ccccc12,0.994632526,1,0.99685355,0.982126048,0.954865628,0.911423465,0.850715487,0.773429155,0.6834777,0.585594018,0.489058815,0.400905332,0.32295798,0.2579666,0.206222039,0.166032089,0.135625218,0.112780404,0.095937642,0.083563368,0.074441307,0.067751795,0.062886696,0.059343635,0.056937526,0.055430403,0.054690061,0.054504976,0.054928028,0.056144303,0.05769902,0.059846009,0.062416051,0.065570433,0.069121427,0.07328849,0.077838944,0.082751637,0.088179924,0.093928145,0.099940773,0.106246893,0.112960201,0.119731679,0.126730548,0.133856332,0.140847268,0.147901662,0.154704868,0.161386448,0.167864433,0.173747501,0.179030365,0.183136614,0.185857368,0.187200558,0.187724085,0.188091612,0.188691817,0.189125446,0.188768495,0.186883269,0.183107529,0.177367241,0.170114541,0.161317702,0.15169591,0.1425289,0.135392539,0.130963713,0.128472993,0.126040444,0.120694123,0.111770367,0.099877315,0.086966293,0.074658121,0.063627037,0.054142738,0.045909086,0.038926082,0.032738945,0.027490455,0.022934712,0.018992396,0.015674081,0.012982412,0.010703218,0.008691077,0.007210394,0.00594917,0.004952354,0.004077165,0.003680553,0.003104145,0.002649364,0.002260685,0.002136413,0.002080888,0.001869362,0.001842921,0.001726581,0.001774175,0.001768887,0.001657835,0.001578513,0.001671056,0.001591734,0.001591734,0.001589089,0.001430445,0.001488615,0.001364343,0.001240071,0.001163393,0.001203054,0.001094647,0.001076139,0.001147529,0.001017969,0.001012681,0.000936003,0.000922782,0.00075885,0.000806443,0.000793223,0.000475934,0.000407188,0.000407188,0.000354306,0.000290848,0.000245899,0.000185085,0.00020095,0.000370171,0.000325221,0.000312001,0.000203594,0.000206238,0.00020095,4.49E-05,0.000161289,0.000248543,0.000156,0.000134848,0.000187729,0.000179797,0.000148068,0.000111051,7.4E-05,4.49E-05,3.17E-05,2.64E-05,2.64E-05,3.7E-05,5.02E-05,6.08E-05,7.14E-05,7.93E-05,8.99E-05,0.000100475,0.000105763,0.000116339,0.000116339,0.000105763,9.25E-05,7.67E-05,0.000105763,0.000116339,5.29E-06,0.00014278,7.67E-05,8.46E-05,0.000124272,0.000216814,0.000116339,8.46E-05,0,4.23E-05,2.64E-06,9.52E-05\nSRI-1053169-001.txt,CCOC(=O)C1CCCN(C1)C(=O)Cn1nnc2ccccc2c1=O,0.983120249,0.988739573,0.995861739,0.999716856,1,0.996798292,0.988086163,0.97710888,0.960795417,0.941389149,0.920392917,0.896064296,0.867510291,0.832356849,0.788600179,0.735107704,0.675342496,0.612745845,0.552000523,0.496068652,0.447128264,0.405614967,0.371027813,0.342604491,0.319887614,0.300633807,0.284498944,0.269954044,0.256792194,0.244651842,0.233500316,0.22365561,0.214834578,0.207490253,0.20094091,0.194822817,0.18880927,0.18304184,0.177424695,0.172341167,0.168274781,0.16565243,0.164811709,0.165756975,0.168706031,0.173269009,0.179284734,0.186350271,0.194363252,0.203280117,0.212336375,0.221614793,0.231274367,0.240859887,0.250029403,0.259249014,0.26823122,0.276856228,0.285224228,0.292784179,0.299516477,0.305148869,0.309981922,0.313288175,0.315566397,0.316498595,0.316387516,0.315093764,0.313455884,0.310918476,0.307590443,0.30334328,0.29863873,0.293328687,0.287959837,0.282371006,0.277204713,0.27270272,0.268581883,0.265151482,0.261895324,0.258406116,0.254039161,0.24832836,0.241047198,0.232219633,0.222566593,0.212573781,0.202853222,0.194106244,0.187001503,0.181880949,0.178716268,0.177076209,0.175765034,0.173151395,0.167717204,0.158826476,0.146405158,0.13134842,0.114993575,0.098455775,0.082726025,0.068488228,0.056230262,0.045764816,0.037113672,0.030078627,0.024398319,0.01989197,0.016256834,0.013312134,0.010920654,0.009017054,0.007551238,0.006281445,0.005166293,0.004253697,0.003665628,0.003023109,0.002565722,0.002077843,0.00173807,0.001642236,0.001352558,0.001136933,0.001004073,0.000816762,0.000753599,0.00065341,0.000598959,0.000479167,0.000453031,0.000389868,0.000357197,0.000383334,0.000413826,0.000196023,0.000198201,0.000263542,0.000283144,0.000219981,0.000196023,0.000182955,0.000191667,0.000200379,0.000191667,0.000178599,0.000176421,0.000148106,0.00012197,9.8E-05,7.19E-05,5.88E-05,5.01E-05,4.57E-05,5.23E-05,5.88E-05,6.32E-05,6.53E-05,7.19E-05,7.84E-05,8.28E-05,9.15E-05,0.000113258,0.00012197,0.000150284,0.000139394,9.8E-05,0.00014375,5.88E-05,0.000113258,0.000148106,0.000145928,0.000152462,0.00014375,6.32E-05,0,9.37E-05,0.000152462,0.00011108\nSRI-1053011-001.txt,COC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)c1cc(=O)[nH]c2ccccc12,0.999179788,1,0.995453683,0.984556582,0.965785447,0.938601281,0.903261866,0.860962366,0.814960196,0.76558344,0.715597384,0.66542385,0.614031716,0.560647639,0.505599704,0.450715811,0.398972157,0.352243514,0.312029696,0.278518182,0.25201362,0.231250542,0.215924297,0.203996072,0.195090915,0.188787,0.184287552,0.181147312,0.179155369,0.177608684,0.175916704,0.173786497,0.171037615,0.167967679,0.164951643,0.162207448,0.159983502,0.158314957,0.157307268,0.156897162,0.157161973,0.158359482,0.1603069,0.162807374,0.165973392,0.169636224,0.173610737,0.178039881,0.18255339,0.187125485,0.191828815,0.196250929,0.200520717,0.204106215,0.207143343,0.209381349,0.210768679,0.21175059,0.212545024,0.213323053,0.213648795,0.213461318,0.212434881,0.210217965,0.206173149,0.200396514,0.193506734,0.18630996,0.180001359,0.17530506,0.171065736,0.164984451,0.155727774,0.143333201,0.129373194,0.115860789,0.103588076,0.093072959,0.084366996,0.077179596,0.071421708,0.066795713,0.063200842,0.060665215,0.058949801,0.057993668,0.057503884,0.057576532,0.058277227,0.059245077,0.060477738,0.062031454,0.06389685,0.066003623,0.068405672,0.070826469,0.073326943,0.07605239,0.078688786,0.081261908,0.083846747,0.086169118,0.088355569,0.090490463,0.092447255,0.094270468,0.096025722,0.097867683,0.099709645,0.101347725,0.103079544,0.104710594,0.105896386,0.106826741,0.107426667,0.107522749,0.106953288,0.106250249,0.105031648,0.10342872,0.101410999,0.099224548,0.097183392,0.095048498,0.092805804,0.090518585,0.088095445,0.085815255,0.083460076,0.081027561,0.078501309,0.07556495,0.072183334,0.068408016,0.064238996,0.059833286,0.055324464,0.050813299,0.046187304,0.041819089,0.037694595,0.033527919,0.029740883,0.026246781,0.023104197,0.020519358,0.018888308,0.018000136,0.016882304,0.014784905,0.012359422,0.010168284,0.008628629,0.007663123,0.007035075,0.006540604,0.006078942,0.005600876,0.005113435,0.004604904,0.004070594,0.003447233,0.002777003,0.002099742,0.001485755,0.001087367,0.000881142,0.000782716,0.000658513,0.000597583,0.000508531,0.000510875,0.000351519,0.000311681,0.000276529,0.000234346,0.000232003,0.000201538,0.000126547,0.000157012,0\nSRI-0000519.txt,C1CN(CCN1C1=CC=CC=C1)C1=CC=CC=C1,0.37351748,0.361324791,0.354674234,0.353565807,0.357999512,0.36465007,0.376842759,0.3912523,0.40898712,0.430047219,0.452215744,0.476601122,0.502094926,0.530914008,0.559843934,0.590436498,0.622691702,0.655057749,0.686980425,0.720787426,0.754040214,0.787293001,0.819437363,0.850916669,0.880733335,0.908111463,0.933051054,0.954554523,0.973508612,0.986588042,0.996674721,1,0.998669888,0.991343191,0.977931233,0.958334257,0.932530094,0.901117294,0.863619233,0.821709637,0.775975969,0.726473653,0.673413288,0.620097985,0.567370148,0.515928085,0.46596023,0.419228979,0.375745417,0.336074841,0.301037487,0.270489259,0.243942451,0.22222838,0.203318628,0.188454632,0.176505797,0.166884657,0.159192179,0.153450531,0.148551287,0.144549868,0.141424106,0.138120996,0.135970649,0.133809218,0.131426101,0.12918708,0.126582278,0.122769292,0.119687867,0.116650779,0.113059478,0.108913964,0.105500011,0.101132812,0.09649959,0.091932874,0.087144472,0.082500166,0.078432242,0.073189386,0.068511827,0.063823184,0.059555743,0.054822763,0.050267131,0.04599969,0.04246381,0.038695161,0.034915427,0.031612317,0.028453302,0.025338624,0.022999845,0.020029262,0.018311202,0.016293866,0.014054845,0.012691481,0.011084263,0.009443792,0.008601388,0.007171518,0.006229356,0.005741648,0.005386952,0.003824071,0.003968166,0.003702144,0.003037088,0.00270456,0.002582633,0.002460706,0.001496375,0.001186016,0.001529628,0.001640471,0.001108426,0.001474207,0.001064089,0.001263606,0.001130595,0.000853488,0.000986499,0.001086258,0.001208185,0.001363364,0.001330112,0.000532045,0.00075373,0.00090891,0.000798067,0.000997584,0.001296859,0.001263606,0.000886741,0.000931078,0.000609634,0.000775898,0.000476623,0.000653971,0.000886741,0.000509876,0.000653971,0.00067614,0.00059855,0.000476623,0.000387949,0.000410118,0.000421202,0.000410118,0.000432286,0.000476623,0.000532045,0.000576382,0.00059855,0.00059855,0.000642887,0.00067614,0.000698309,0.000731561,0.000742646,0.000709393,0.000631803,0.00059855,0.000786983,0.001130595,0.000653971,0.000864572,0,0.000399033,0.000144095,0.000476623,0.000498792,0.000820235,0.001108426,0.000576382,2.22E-05,0.000742646,0.000565297\nSRI-1053001-001.txt,CCOc1ccc(NC(=O)C(NS(=O)(=O)c2ccc(C)cc2)C(C)C)cc1,0.687511197,0.72274307,0.759766395,0.79798402,0.836201646,0.87262782,0.906665393,0.936522913,0.961006079,0.980114892,0.9932522,1,1,0.994625646,0.982981214,0.966679008,0.94691333,0.924341045,0.900335599,0.875374712,0.850891546,0.828020685,0.806582986,0.788071324,0.772724558,0.75994554,0.750629994,0.742867038,0.737731545,0.733790352,0.73068517,0.727759133,0.724444949,0.72012158,0.714418794,0.708417432,0.700726135,0.690891068,0.679222749,0.665309145,0.648917366,0.630125043,0.610699741,0.590533972,0.569275418,0.545962666,0.520936093,0.495127253,0.469007894,0.443515544,0.418494942,0.394513382,0.370806511,0.348610431,0.328289403,0.309341821,0.291319822,0.27364417,0.257001588,0.241613023,0.227777048,0.215553379,0.204100035,0.193930563,0.184256727,0.175012839,0.166240699,0.157510361,0.149592146,0.141960564,0.134078179,0.126112193,0.118385066,0.110293679,0.102339635,0.094230333,0.086330033,0.079456832,0.072529887,0.065656686,0.05904026,0.052764209,0.046213469,0.04018225,0.034240604,0.028758763,0.023975588,0.019723878,0.016523152,0.013883747,0.01163249,0.010067956,0.009076686,0.007965986,0.007046375,0.006491025,0.006335766,0.005911789,0.0056371,0.005237009,0.005183265,0.004693602,0.004239768,0.003779962,0.003266413,0.002812578,0.002514003,0.00214377,0.001654107,0.001277902,0.001200272,0.001134586,0.001116671,0.000740466,0.000668808,0.00067478,0.000644922,0.000615065,0.000591179,0.000692694,0.000704637,0.000692694,0.000644922,0.000537435,0.000209003,0.00047772,0.000501606,0.000656865,0.000776296,0.00059715,0.000549378,0.000806153,0.000573264,0.000531464,0.000429948,0.000489663,0.000627008,0.000513549,0.000567293,0.000650894,0.000549378,0.000286632,0.000382176,0.00019706,0.000268718,0.000304547,0.000310518,0.000250803,0.00019706,0.000137345,0.000149288,0.000143316,0.000125402,0.000107487,8.96E-05,7.17E-05,4.78E-05,5.37E-05,6.57E-05,8.96E-05,0.00011943,0.000143316,0.000179145,0.000209003,0.000214974,0.000209003,0.000203031,0.000364262,0.000209003,0.000185117,0.000214974,0.000220946,0.000203031,0.000125402,0.000244832,0.000256775,0.000131373,0.000203031,0,0.00011943,0.000209003\nSRI-1053367-001.txt,OC(=O)C(Cc1c[nH]c2ccccc12)c1ccccc1,0.990893811,0.99921947,1,0.989853104,0.965916837,0.927150491,0.872253183,0.80304615,0.723952398,0.639446968,0.555696051,0.478033271,0.408253849,0.347944863,0.297106313,0.255113775,0.221030612,0.193686029,0.171544982,0.153540746,0.139231021,0.127835277,0.118416876,0.110819713,0.10467954,0.099554057,0.095599369,0.092503265,0.090161674,0.088652648,0.087697799,0.087526083,0.087898136,0.088915427,0.090320382,0.092126009,0.09442337,0.097191651,0.100631189,0.104359523,0.108087857,0.111696509,0.115388418,0.119460185,0.123617811,0.127941949,0.13222446,0.136236386,0.140224897,0.144067708,0.147582697,0.150991013,0.154003861,0.15695947,0.159368707,0.1611249,0.162136988,0.163026793,0.163927005,0.165488066,0.167504436,0.16926063,0.170324753,0.170324753,0.168807922,0.165084792,0.159550831,0.153116658,0.1477336,0.144814416,0.143994859,0.143055621,0.138830349,0.12957586,0.116418718,0.101414321,0.086454154,0.073380269,0.062015746,0.052131629,0.043564006,0.036208808,0.029920334,0.02455809,0.020049225,0.016305281,0.013099903,0.010628223,0.008557215,0.006678739,0.00538566,0.00428251,0.003439538,0.002739662,0.002255733,0.001873273,0.001587079,0.001391946,0.001157787,0.000988672,0.000931433,0.000790938,0.000832566,0.000671256,0.000671256,0.00060361,0.000616619,0.000671256,0.000548973,0.00060361,0.000608814,0.000577593,0.000522955,0.00055938,0.000473522,0.000509947,0.000429292,0.00047092,0.000418885,0.000421486,0.00042669,0.000416283,0.000346035,0.000447504,0.000483929,0.000377256,0.000372053,0.000463115,0.000340832,0.000283593,0.000434495,0.000424088,0.000491734,0.000377256,0.000390265,0.000234159,0.000351239,0.000299203,0.000304407,0.000322619,0.000244566,0.000252372,0.000257575,0.000288796,0.000241964,0.000202938,0.000189929,0.000174318,0.000182124,0.000182124,0.000171717,0.000156106,0.000145699,0.00013269,0.000119681,0.000109274,0.000101469,9.37E-05,8.85E-05,8.59E-05,8.59E-05,8.33E-05,8.59E-05,8.33E-05,8.07E-05,0.000106672,0.000171717,0.000226354,0.000148301,0.000124885,5.98E-05,8.33E-05,0.000122283,2.86E-05,0.000111876,7.28E-05,8.85E-05,6.5E-05,0,8.33E-05,9.37E-05\nSRI-0000281.txt,CSC1=NN=C(S1)C1=CC=NC=C1,0.648171329,0.654642994,0.662732575,0.67090731,0.678826585,0.685724018,0.692706604,0.699263422,0.705394474,0.709481841,0.712291906,0.716379274,0.718848725,0.720040874,0.721233023,0.721488483,0.721743943,0.72191425,0.721062716,0.720807255,0.720126027,0.718848725,0.717460723,0.715681015,0.713228595,0.709865032,0.70616937,0.701034615,0.695039809,0.688091285,0.67993358,0.670975433,0.660867714,0.650180951,0.638514923,0.626687104,0.61477413,0.602460936,0.590539447,0.579333248,0.56851024,0.558351428,0.549682803,0.541763529,0.53458509,0.528964959,0.524681739,0.521675821,0.519623622,0.519308554,0.520202665,0.522110103,0.524392217,0.527551411,0.531715417,0.536620258,0.542197812,0.549146336,0.55607783,0.562992294,0.568859369,0.573457657,0.576659429,0.579094818,0.581061864,0.583131094,0.587201431,0.592515008,0.598884489,0.605943714,0.611521267,0.615455358,0.618597522,0.62098182,0.62416656,0.629394984,0.63588368,0.644628944,0.655417891,0.668156853,0.682104994,0.6972538,0.712683612,0.729399242,0.745961596,0.763162601,0.779954869,0.797385788,0.814135479,0.830450888,0.846987695,0.862451569,0.877225699,0.891327117,0.90444927,0.917775791,0.929288543,0.940120066,0.95021927,0.959271086,0.966704986,0.974207008,0.980218844,0.985387661,0.989756035,0.993392089,0.996040363,0.997760463,0.999727509,0.999931877,1,0.999335803,0.997241027,0.99474603,0.99157832,0.987465406,0.982543535,0.977332141,0.970979691,0.964269596,0.956546174,0.94837144,0.939779452,0.93057436,0.9192234,0.909226381,0.897168646,0.885528165,0.874287904,0.862953975,0.85258228,0.840822583,0.82709584,0.812670839,0.797641248,0.782100737,0.765376591,0.747570997,0.729288543,0.710171584,0.690160514,0.668778473,0.646519351,0.624566782,0.600374675,0.577391749,0.560693149,0.550653553,0.534806489,0.502030911,0.463899178,0.429190616,0.40195853,0.382177375,0.366985992,0.353395495,0.33960063,0.32458807,0.308136416,0.289947631,0.269706646,0.246834419,0.220385745,0.19071827,0.160097075,0.134746881,0.116353728,0.101877634,0.089581471,0.077830289,0.066538936,0.057137991,0.047915868,0.039587857,0.032188019,0.02550347,0.019082897,0.013650104,0.008234342,0.003891514,0\nSRI-1053383-001.txt,CC[C@@H](C)[C@H](N1Cc2ccccc2C1=O)C(O)=O,0.895759634,0.914744588,0.931371162,0.944578086,0.95436536,0.962148012,0.971345691,0.983491345,0.994929484,1,0.988915617,0.961086741,0.921465969,0.879486817,0.846115749,0.821352766,0.80614122,0.798948163,0.796118108,0.797533135,0.799184001,0.801188623,0.802014056,0.802485732,0.802014056,0.799066082,0.793405971,0.785151644,0.774067261,0.760400453,0.743868214,0.72494222,0.70461299,0.682597519,0.65947361,0.635029008,0.609417009,0.583580963,0.556223763,0.528559974,0.501167398,0.474234706,0.448044904,0.422491864,0.397481251,0.374416301,0.352978633,0.332602236,0.314761096,0.299537758,0.285988868,0.27511674,0.265518136,0.25453988,0.240873072,0.223456441,0.202773454,0.184012547,0.171513136,0.164933258,0.161584359,0.154261591,0.138366115,0.11471157,0.088509976,0.064360172,0.045646432,0.031684826,0.022746569,0.016367152,0.01231074,0.010034904,0.00758219,0.006332248,0.00590774,0.004822886,0.003820575,0.003337107,0.002688552,0.002405547,0.002216877,0.00205179,0.00155653,0.001733409,0.001544738,0.000978727,0.001379652,0.001308901,0.001037687,0.001014103,0.000849017,0.000707514,0.0008726,0.000471676,0.000377341,0.000719306,0.000518843,9.43E-05,0.000294797,0.00024763,0.000813641,0.000283006,0.00068393,0.000601387,0.000542427,3.54E-05,0.000577803,0.000294797,0.000707514,0.000554219,0.000636762,0.000459884,0.000778265,0.000955144,0.000990519,0.000766473,0.000742889,0.000306589,0.000566011,0.000648554,0.000636762,0.000849017,0.00068393,0.0008726,0.000212254,0.000601387,0.000601387,0.000353757,9.43E-05,4.72E-05,0.000554219,0.000636762,0.000224046,0.000224046,0.0004363,0.000577803,0.000200462,0.000341965,0.00049526,0.000507052,0.000801849,0.000341965,0.000400924,0.000330173,0.000318381,0.00024763,0.000318381,0.000353757,0.000330173,0.000259422,0.000176878,0.000129711,0.000129711,0.000153295,0.000165087,0.000165087,0.000176878,0.00018867,0.000200462,0.000212254,0.000212254,0.000200462,0.000212254,0.000153295,5.9E-05,0.000153295,0.000353757,0.000849017,0.001014103,0.000389133,0.0004363,0.000212254,0,0.000542427,0.000141503,0.000341965,0.000235838,0.000554219,0.000636762,0.000389133,0.000624971\nSRI-1052955-001.txt,COc1cc2CC(N(Cc2cc1OC)C(=O)CCc1c[nH]c2ccccc12)C(O)=O,0.998989788,1,0.996398375,0.986296256,0.968551664,0.939519051,0.897968596,0.84376853,0.778148677,0.703920061,0.625914132,0.550148238,0.47899418,0.416097507,0.362160975,0.316877127,0.279060064,0.247348194,0.220643461,0.197232898,0.176633359,0.158186011,0.141890853,0.126957286,0.11342923,0.101526298,0.091380257,0.082903261,0.076183156,0.071101351,0.067504118,0.065426595,0.06427144,0.064341715,0.065409026,0.067240584,0.069669485,0.072744043,0.076336884,0.080540244,0.084919293,0.089763918,0.094995059,0.100564401,0.106551005,0.112695729,0.119314813,0.126052487,0.132921928,0.140085648,0.147433842,0.154421873,0.161686615,0.168995278,0.175671462,0.181939168,0.187859888,0.193701548,0.199358735,0.205174042,0.211020094,0.216246843,0.220942132,0.223761941,0.224561326,0.22283079,0.218970023,0.21389261,0.208872296,0.204528385,0.200478753,0.195594598,0.187631492,0.175060942,0.158058636,0.138109147,0.117268036,0.097331723,0.079692544,0.064517404,0.052162073,0.041866696,0.033833315,0.027161524,0.022053366,0.017810475,0.014538267,0.01181948,0.009623367,0.007958713,0.006557593,0.005455144,0.004765565,0.003970572,0.003210717,0.003004282,0.002688042,0.002512353,0.002389371,0.002068738,0.001822774,0.001998463,0.001809597,0.001734929,0.001901834,0.001871088,0.001581201,0.001576809,0.001682222,0.00148018,0.001449435,0.001453827,0.001313276,0.001234215,0.001352806,0.001392336,0.001133194,0.001379159,0.001278138,0.001207862,0.001168332,0.001141979,0.001229823,0.001150763,0.001256177,0.001159548,0.001098056,0.001221039,0.001115625,0.001194685,0.001089272,0.001067311,0.000759855,0.000698364,0.001146371,0.000913583,0.001010212,0.000878445,0.000909191,0.000825738,0.000693972,0.000786208,0.000685187,0.000698364,0.000729109,0.000737894,0.000680795,0.000650049,0.000601735,0.000518283,0.000443615,0.000382124,0.000342594,0.000329417,0.000333809,0.000342594,0.000351378,0.00035577,0.000360163,0.000364555,0.000368947,0.000373339,0.000373339,0.000373339,0.00035577,0.000333809,0.000303064,0.000127375,5.71E-05,0,0.000263534,0.000162512,0.000311848,0.000144943,0.000250357,0.000131767,0.000351378,0.000281102,3.51E-05,0.000338201,0.000439223\nSRI-1052945-001.txt,O=C(CCc1c[nH]c2ccccc12)NCCNS(=O)(=O)c1cccc2nonc12,0.984469194,0.996204878,1,0.993781839,0.973959626,0.940533361,0.89140113,0.82536601,0.746748602,0.658409844,0.568202718,0.48310441,0.405333606,0.338305916,0.283218263,0.238406633,0.203520705,0.176516954,0.155293465,0.138624122,0.125837481,0.115619846,0.107591703,0.101636281,0.097490841,0.094863449,0.0933454,0.092965888,0.093666526,0.095353895,0.098019238,0.101563298,0.105778803,0.110948926,0.116653286,0.122710885,0.129048738,0.1355238,0.142585646,0.149945263,0.157497555,0.165087799,0.173518808,0.182522004,0.192476901,0.201909238,0.210077508,0.217212337,0.224215796,0.23176517,0.238783226,0.245194062,0.251374272,0.258044928,0.265681881,0.273520267,0.279723832,0.282838751,0.283556905,0.283650323,0.284710038,0.286254361,0.28733743,0.287410413,0.286721453,0.285591674,0.284812214,0.2843568,0.283559824,0.281560087,0.277814594,0.272320425,0.264017866,0.253137544,0.240324629,0.227467924,0.215959947,0.206477981,0.198931527,0.193133749,0.188567925,0.18491585,0.1822797,0.180262447,0.178820301,0.177623378,0.176808886,0.176137442,0.175606125,0.175007663,0.174298267,0.173556759,0.172534995,0.170976076,0.169414238,0.167221825,0.164743318,0.161838591,0.158460932,0.154966501,0.150783109,0.146404122,0.141706929,0.136817061,0.131559357,0.125746982,0.12001051,0.114055088,0.107676364,0.101364784,0.094799223,0.088195712,0.081498781,0.074749303,0.068166226,0.061606504,0.055370827,0.049505904,0.044070122,0.038397875,0.033289057,0.029248712,0.025001095,0.021492067,0.018429695,0.015735159,0.013280007,0.011216045,0.009502401,0.007893853,0.006571399,0.005537959,0.004475324,0.003838912,0.003386416,0.002890131,0.002662424,0.002107752,0.001888803,0.001696128,0.001316615,0.001284503,0.001106424,0.001001328,0.000861201,0.000840765,0.000799895,0.000756105,0.000700638,0.000610139,0.00051964,0.000446657,0.000399947,0.000373674,0.000367835,0.000367835,0.000367835,0.000364916,0.000359077,0.000350319,0.000338642,0.000326964,0.00030069,0.000265659,0.000213111,0.00017224,0.000192675,0.000210191,0.000192675,8.17E-05,9.34E-05,7.88E-05,0.000148886,9.93E-05,0.000157644,7.59E-05,6.71E-05,7.01E-05,1.75E-05,0,0.000145966\nSRI-004715.txt,CC1=CC=[N+](C[N+]2=CC=C(C)C=C2)C=C1,0.771290383,0.834905771,0.888423178,0.922010418,0.949263987,0.976558448,0.993721608,1,0.99644545,0.982022035,0.957044014,0.92165148,0.87681599,0.823688569,0.764419061,0.701630595,0.637916764,0.575705325,0.516751593,0.475292698,0.436772705,0.38964955,0.347272106,0.309444244,0.275771434,0.245836429,0.219358288,0.196053041,0.175734404,0.158330437,0.143564743,0.131268453,0.121012963,0.114362759,0.108474353,0.101320575,0.094721107,0.088494965,0.082510388,0.0767492,0.0712008,0.065748572,0.060375098,0.055003139,0.049626636,0.04420697,0.038764586,0.034699647,0.030617291,0.025313484,0.02037846,0.016014406,0.012426537,0.009652716,0.00763312,0.006202667,0.005173559,0.004467798,0.003930905,0.003540919,0.003296326,0.003128973,0.002906341,0.002745803,0.002588294,0.002498938,0.002414883,0.002371719,0.002292208,0.002255102,0.002220269,0.002182406,0.002149087,0.002118039,0.002083963,0.002031712,0.001987792,0.001943871,0.001890863,0.001825739,0.001773489,0.001743199,0.001665201,0.00159932,0.001553885,0.001521323,0.001463772,0.001436511,0.001369872,0.001338825,0.001290361,0.001236596,0.00122448,0.001176773,0.001158599,0.001136638,0.001071514,0.001123008,0.001101047,0.001129066,0.001121493,0.001107105,0.001119221,0.001101804,0.00110029,0.001123765,0.001144968,0.001188131,0.001173744,0.001162385,0.001229023,0.001240382,0.001176015,0.001232052,0.001270672,0.001278245,0.001322923,0.001402434,0.001366843,0.001369872,0.001438782,0.001469073,0.001506935,0.001509207,0.001539497,0.001542526,0.00156903,0.001572059,0.001556914,0.001575845,0.001533439,0.001534196,0.001541012,0.001484218,0.001485732,0.001424395,0.001416065,0.001424395,0.001347912,0.001342611,0.001319894,0.001254012,0.001251741,0.001219936,0.001134366,0.001104076,0.001099533,0.001011691,0.000947325,0.000953383,0.000929151,0.000852668,0.000814805,0.000830708,0.000745138,0.000683043,0.000709547,0.000645938,0.000539165,0.000509632,0.000597473,0.000474798,0.000517962,0.000355152,0.000455867,0.000328648,0.000315775,0.000277912,0.000250651,0.000246108,0.000179469,0.000198401,0.000168868,0.000199158,0.000109802,0.000135548,6.66E-05,3.94E-05,8.63E-05,0,6.97E-05\nSRI-0000530.txt,C1CN(CCN1)C1=CC=CC=C1,0.764413228,0.751243781,0.776119403,0.774656131,0.78928885,0.806555458,0.824114721,0.834942932,0.852794849,0.884401522,0.886450102,0.908691835,0.927129061,0.93912789,0.958150424,0.981855429,0.985074627,0.99063506,1,0.999122037,0.986245244,0.97658765,0.966052092,0.939420544,0.917178812,0.891717881,0.862745098,0.823236757,0.795141937,0.750073164,0.712320749,0.675446298,0.621305239,0.581211589,0.544922447,0.499268364,0.465613111,0.422007609,0.385718466,0.357623646,0.334211296,0.304945859,0.268364062,0.242610477,0.22944103,0.213052385,0.193151888,0.190810653,0.180275095,0.175592625,0.160959906,0.159496634,0.146327188,0.149546386,0.139888791,0.141352063,0.143400644,0.141644718,0.136669593,0.130816506,0.131401814,0.137254902,0.140766754,0.123207492,0.132279778,0.138132865,0.131401814,0.121451566,0.123792801,0.115013169,0.112964589,0.105355575,0.097453907,0.103306994,0.106818847,0.103892303,0.085162423,0.085455078,0.083406497,0.083406497,0.069359087,0.071115013,0.076090138,0.072870939,0.061750073,0.053555751,0.054726368,0.045946737,0.035411179,0.03745976,0.031606673,0.047410009,0.038045069,0.039508341,0.030728709,0.031606673,0.031606673,0.023997659,0.024875622,0.020193152,0.021949078,0.026631548,0.01872988,0.012291484,0.025753585,0.029850746,0.021071115,0.019607843,0.02809482,0.012876793,0.016681299,0.026338894,0.027509511,0.036581797,0.025753585,0.024875622,0.023997659,0.020193152,0.027509511,0.028387474,0.033069944,0.011413521,0.025168276,0.026046239,0.026924203,0.032191981,0.040093649,0.033069944,0.033655253,0.037752414,0.039215686,0.042434884,0.035411179,0.031314018,0.025753585,0.024290313,0.01872988,0.026338894,0.031606673,0.038337723,0.018144571,0,0.015510682,0.022241733,0.024875622,0.026924203,0.029265438,0.026924203,0.022241733,0.015803336,0.014340064,0.012876793,0.010535558,0.008486977,0.007609014,0.007316359,0.007609014,0.008194323,0.009072286,0.010535558,0.012876793,0.016095991,0.019022534,0.021363769,0.021363769,0.019900498,0.021363769,0.018144571,0.005853088,0.026631548,0.021949078,0.019022534,0.014925373,0.007609014,0.006731051,0.016095991,0.016973954,0.010242903,0.010535558,0.015803336,0.012584138\nSRI-1053134-001.txt,COc1ccccc1Oc1ccc(cc1)S(=O)(=O)NCCC(O)=O,0.822069386,0.823733326,0.82462076,0.825619124,0.825286336,0.825286336,0.825508195,0.826617488,0.830777337,0.837876813,0.848137774,0.862170332,0.880196345,0.899331651,0.920962866,0.94137386,0.960509166,0.976372057,0.989017998,0.99678305,1,0.99761502,0.988574281,0.972434066,0.949249841,0.919077068,0.881305638,0.836545661,0.786627472,0.732937685,0.67730109,0.623345073,0.57150226,0.52379711,0.481305638,0.443245792,0.410538284,0.383088827,0.359971158,0.341190826,0.326525971,0.315366483,0.307679082,0.301982861,0.297667711,0.294694806,0.293457944,0.294234449,0.296475221,0.300269004,0.304279098,0.307207632,0.307390665,0.303901938,0.296292188,0.286136609,0.274838459,0.264660695,0.256579495,0.248930919,0.238647772,0.223084389,0.201103747,0.174441887,0.147308578,0.121572978,0.099425941,0.081172523,0.067062315,0.056074766,0.047311351,0.039929005,0.03392773,0.028658587,0.023905266,0.019928451,0.016489642,0.01406029,0.01241299,0.010499459,0.009112843,0.008258687,0.007304695,0.00681106,0.005929172,0.005540919,0.00505283,0.004559195,0.004109931,0.003838154,0.003705039,0.003549738,0.003372251,0.003255775,0.00302837,0.002895255,0.002673396,0.002789872,0.002312876,0.002107657,0.001946809,0.001680579,0.00145872,0.001181397,0.001236862,0.001059375,0.001281234,0.001525278,0.001164758,0.001070468,0.001175851,0.001247955,0.001070468,0.000759866,0.001026096,0.000998364,0.000920713,0.00092626,0.001148118,0.001408802,0.001336698,0.001425442,0.001009457,0.000776505,0.00081533,0.000809784,0.000793145,0.000793145,0.000809784,0.000543554,0.000404892,0.000632297,0.000460357,0.000632297,0.000765412,0.000865249,0.000660029,0.000460357,0.000349427,0.000316149,0.000443717,0.000665576,0.000482542,0.001109293,0.000787598,0.000698855,0.000665576,0.000615658,0.000571286,0.000565739,0.000543554,0.000543554,0.0005491,0.000554647,0.0005491,0.000560193,0.000554647,0.000554647,0.000543554,0.000526914,0.000504728,0.000493635,0.000465903,0.000443717,0.000443717,0.000415985,0.000371613,0.000321695,0.000427078,0.000404892,0.00036052,0.000432624,0.000565739,0.000293963,0,0.000427078,0.000382706,4.44E-05,0.000271777,0.000421531,0.000393799\nSRI-1053124-001.txt,OC(=O)C(Cc1ccccc1)NS(=O)(=O)c1cccc2cccnc12,1,0.929340798,0.859352835,0.791468091,0.727789786,0.668004672,0.612873489,0.560785261,0.512769223,0.466901153,0.423539046,0.382593403,0.342408499,0.30387932,0.267408611,0.232504128,0.201224342,0.174106244,0.150926088,0.13186287,0.116603346,0.104655273,0.095213163,0.087695275,0.0826386,0.079148152,0.076910685,0.075612954,0.075031213,0.075375783,0.076105197,0.077411877,0.079483772,0.081953935,0.084388299,0.08735518,0.090836678,0.094380826,0.09845749,0.1028832,0.107183611,0.111322925,0.115730734,0.120599462,0.125311567,0.130153445,0.134695503,0.139407608,0.144321085,0.14909584,0.15376767,0.158135206,0.162399817,0.166427258,0.170074329,0.173470803,0.176410835,0.178858623,0.180648597,0.18212085,0.183096386,0.183628903,0.183986897,0.184112196,0.183901874,0.18313666,0.181718106,0.179596987,0.177305821,0.174589537,0.171264661,0.167890561,0.163742298,0.159692483,0.155700842,0.152004547,0.148294827,0.144500083,0.141108083,0.138347049,0.136852421,0.13659735,0.136642099,0.136158806,0.134520981,0.131768897,0.128305298,0.124622427,0.120465214,0.115762059,0.110615885,0.105626334,0.102663928,0.103017448,0.106364698,0.110844107,0.113265046,0.110660634,0.101719717,0.08839784,0.073630558,0.059543467,0.047474571,0.037813189,0.03002233,0.023802172,0.018978194,0.015357972,0.012659587,0.010167049,0.008448675,0.007128569,0.006372306,0.005463894,0.005065625,0.004730005,0.004443609,0.004327261,0.003973741,0.003597847,0.003651546,0.0033562,0.003007155,0.002479113,0.002125593,0.001964496,0.001749699,0.001628876,0.0016781,0.001212707,0.001203757,0.001172433,0.00102476,0.000948686,0.001208232,0.001373805,0.001172433,0.001185857,0.001091884,0.001002385,0.001235082,0.001212707,0.001244032,0.001597551,0.001306681,0.001226132,0.001230607,0.001208232,0.001150058,0.001118733,0.001109784,0.001105309,0.001109784,0.001114258,0.001114258,0.001118733,0.001114258,0.001109784,0.001091884,0.001073984,0.001051609,0.00102476,0.000993435,0.000971061,0.000953161,0.000903937,0.000765214,0.00067124,0.000854712,0.000657815,0.000751789,0.000514617,0.000648865,0.000630966,0.000528042,0.000702565,0.000456443,3.58E-05,9.4E-05,0.000111873,0\nSRI-1053252-001.txt,CC[C@@H](C)[C@H](NC(=O)Cn1nnc2ccccc2c1=O)C(O)=O,0.980682387,0.985943175,0.99225612,0.997390649,1,0.998779497,0.992382379,0.980093179,0.961617292,0.938596085,0.91191337,0.882873821,0.849162693,0.80913862,0.761244408,0.704596245,0.64239269,0.579010719,0.518448531,0.463231302,0.416389248,0.377754022,0.346568072,0.322873484,0.304650116,0.289873615,0.277685422,0.266831364,0.2567054,0.24705922,0.238010665,0.229643908,0.222266179,0.215797514,0.209989605,0.204556263,0.199244972,0.193298177,0.187258793,0.18142984,0.176766678,0.172861069,0.170845135,0.170765171,0.17264222,0.176404736,0.181518221,0.188113145,0.195465622,0.203786084,0.212396941,0.221420244,0.230552972,0.239626779,0.248700585,0.257563961,0.266503091,0.275227582,0.283514375,0.291388722,0.298274041,0.304326051,0.309431119,0.313467196,0.315899784,0.317579028,0.31803356,0.317069783,0.315664101,0.312924283,0.309494249,0.306064215,0.301817707,0.297268178,0.292142067,0.287146422,0.282491677,0.277954774,0.274655208,0.271418771,0.268615824,0.265429891,0.261604246,0.256057271,0.249045693,0.240670519,0.231083259,0.221180352,0.21129428,0.20210684,0.194531306,0.188458252,0.184460054,0.18213689,0.180373474,0.177810418,0.172873695,0.164540607,0.152756442,0.137942064,0.121368478,0.104773849,0.088402278,0.073684698,0.06043593,0.049594498,0.040327095,0.032928323,0.02691419,0.02196905,0.018025563,0.015071105,0.012558553,0.01032377,0.008568771,0.007205175,0.005770032,0.004974601,0.004406436,0.003476329,0.002899746,0.00276507,0.002495718,0.001805502,0.001860215,0.001691869,0.001430934,0.001296258,0.001073201,0.001090035,0.000866978,0.000854352,0.000888021,0.000841726,0.000774388,0.000593417,0.000732302,0.000450323,0.000500827,0.000433489,0.000332482,0.000370359,0.000252518,0.000471367,0.000395611,0.000366151,0.000353525,0.000286187,0.000197806,9.68E-05,2.1E-05,0,4.21E-06,0,1.68E-05,5.05E-05,8.42E-05,0.000109424,0.000126259,0.000147302,0.000159928,0.000172554,0.000168345,0.000143093,0.00012205,0.000155719,0.000265144,0.000366151,0.000387194,0.000172554,0.000180971,0.000218849,0.000206223,0.000134676,0.000563956,0.000164137,0.000227266,0.000239892,6.31E-05,0.00021464,0.000239892\nSRI-1052758-001.txt,COc1ccc(cc1)C1C2C3CC(C2Sc2[nH]c(=O)sc12)C1C3C(=O)N(C(C)C(O)=O)C1=O,0.931558016,0.942269242,0.956825522,0.97165645,0.985169073,0.995166216,1,0.997528179,0.986871883,0.966163514,0.936117153,0.896293367,0.847625953,0.790993782,0.731230637,0.670973129,0.613956452,0.562707358,0.519917386,0.48525696,0.458835937,0.439775449,0.42587832,0.417583987,0.412585415,0.410278382,0.410003735,0.411102322,0.413134709,0.415617516,0.418006943,0.420434821,0.423000022,0.425136774,0.426856063,0.428366621,0.429234504,0.429756333,0.429415771,0.428893942,0.427652539,0.426048601,0.423878892,0.421291719,0.418298069,0.414897941,0.411607673,0.407850504,0.403428691,0.398485048,0.393480983,0.388268187,0.382407224,0.376568233,0.370751214,0.364632083,0.358232813,0.35010876,0.340353306,0.328505043,0.315898754,0.303429789,0.292460396,0.282238042,0.270966537,0.256662931,0.23884934,0.218168435,0.196877815,0.177158175,0.159492892,0.144574078,0.131253708,0.119498825,0.108935908,0.099180454,0.090139081,0.081575594,0.073566893,0.066316217,0.059202865,0.052759651,0.046777844,0.041482653,0.036495067,0.031996353,0.028200734,0.025036803,0.021867379,0.01945598,0.01732472,0.015418672,0.014133325,0.013078681,0.012144882,0.011364885,0.010447564,0.010260805,0.009964186,0.009832356,0.00985982,0.0099532,0.009881792,0.009958693,0.009870806,0.010057566,0.010260805,0.010518973,0.010821084,0.011046294,0.011551645,0.011348406,0.011666996,0.01202953,0.011963615,0.012386571,0.012606288,0.012716147,0.012913893,0.013051216,0.013259948,0.013347835,0.013474172,0.013798255,0.013682904,0.013353328,0.01363896,0.013419243,0.013353328,0.013408257,0.013298398,0.01318854,0.013106145,0.012765583,0.012666711,0.012364599,0.012040516,0.011826291,0.011573616,0.011194604,0.010788126,0.01051348,0.009717004,0.009695032,0.009359963,0.008953486,0.008656867,0.008464615,0.008102081,0.007349548,0.006564059,0.005904906,0.00538857,0.005020544,0.004723925,0.004465757,0.004180124,0.003894492,0.003586887,0.003268297,0.002922242,0.002548722,0.002142245,0.00170281,0.001296333,0.000988728,0.000719575,0.000659152,0.000274647,0.000604223,0.00041197,0.00018676,0.000214225,8.24E-05,0,0.000148309,0.00022521,0.00022521,1.65E-05,0.000263661,0.000219717\nSRI-0000726.txt,CCOC(=O)C(\\C#N)=C1/CN(C)C2=CC=CC=C12,0.89833176,0.914069877,0.921938936,0.929807995,0.929807995,0.929807995,0.937677054,0.929807995,0.921938936,0.914069877,0.903840101,0.887315077,0.868429336,0.847182877,0.822788794,0.802329241,0.775574441,0.750393453,0.724425559,0.697670759,0.674850488,0.648095688,0.627636135,0.610324205,0.595372993,0.584356311,0.581995593,0.582782499,0.591438464,0.607176582,0.631570664,0.65643689,0.685631099,0.723638653,0.755744413,0.791548631,0.828611898,0.867799811,0.899118665,0.931460497,0.960654706,0.980642115,0.991658798,1,0.995514636,0.986543909,0.972536985,0.948615046,0.919578218,0.883301857,0.834435002,0.778485993,0.715690903,0.647230091,0.582703809,0.518256217,0.461598993,0.407617249,0.361268492,0.320428077,0.28478124,0.251101668,0.223874725,0.200110167,0.181224426,0.166430595,0.150062952,0.139833176,0.130154234,0.125275417,0.119216242,0.118429336,0.11362921,0.111583255,0.117406358,0.117563739,0.116225999,0.122127794,0.123465534,0.126298395,0.130311615,0.141564369,0.147466163,0.147466163,0.157617249,0.16706012,0.177447277,0.18720491,0.194444444,0.202549575,0.214038401,0.227022348,0.238747246,0.242052251,0.254485364,0.266839786,0.276203966,0.287850173,0.294617564,0.307837583,0.31956248,0.327667611,0.337740006,0.343877872,0.35166824,0.361032421,0.370396601,0.383459238,0.389675795,0.391249607,0.395971042,0.400613787,0.405177841,0.406594271,0.412417375,0.412574756,0.411158325,0.41178785,0.415171545,0.411237016,0.408246774,0.410135348,0.406909034,0.39833176,0.396364495,0.390620082,0.38369531,0.374095058,0.367799811,0.361583255,0.354028958,0.345845137,0.334435002,0.324205225,0.312480327,0.304532578,0.288243626,0.279745042,0.270223481,0.25936418,0.250708215,0.237330815,0.22458294,0.213408876,0.202392194,0.193264086,0.186181933,0.182247403,0.176188228,0.163440353,0.148174378,0.134403525,0.123465534,0.115517784,0.10961599,0.104579792,0.099700976,0.094350016,0.088526912,0.082310356,0.075542965,0.067831287,0.059096632,0.049653761,0.040368272,0.032813975,0.028171231,0.027384325,0.023292414,0.016682405,0.014557759,0.011646207,0.008183821,0.005193579,0.009521561,0.006846081,0.00535096,0.006846081,0,0.002518099,0.000550834\nSRI-1053242-001.txt,O=C(C1CCCCN1S(=O)(=O)c1ccccc1)N1CCCC1,1,0.969912007,0.942284038,0.914561453,0.888258113,0.861765541,0.836597597,0.811713502,0.785599394,0.760147601,0.735925821,0.71274482,0.688901504,0.66581512,0.643201817,0.622007759,0.600529851,0.579241177,0.557857886,0.536663828,0.515375154,0.494370328,0.473554736,0.452360677,0.43088277,0.410067178,0.389440817,0.368814457,0.348471946,0.328697133,0.309698174,0.290869524,0.273620967,0.256694105,0.241318952,0.227183272,0.213113823,0.200728546,0.188977197,0.179061406,0.169978238,0.161103226,0.15202952,0.144441291,0.137609991,0.133191409,0.130087993,0.126795345,0.119859968,0.109764405,0.099432302,0.09096414,0.086299555,0.084965465,0.083877377,0.079449333,0.0699877,0.057451036,0.045851074,0.036484057,0.029558142,0.02543287,0.022055067,0.019878891,0.017996026,0.016529473,0.014873687,0.014126218,0.013075977,0.012650203,0.012101429,0.011363421,0.010284795,0.009698174,0.008241082,0.006963762,0.005762135,0.0046362,0.003623805,0.003008799,0.002583026,0.002034251,0.001674709,0.001731479,0.001636863,0.001580093,0.001230012,0.001409783,0.001457091,0.001230012,0.001239474,0.001182704,0.000908317,0.000851547,0.001315167,0.000747469,0.000738007,0.000898855,0.00035008,0.000908317,0.000624468,0.001173243,0.000832624,0.000615006,0.00057716,0,0.000861009,0.000936702,0.000709622,0.000510928,0.00057716,0.000643391,0.001315167,0.001050241,0.00098401,0.000444697,0.000586621,0.0008137,0.001125934,0.000624468,0.000605545,0.001211089,0.000738007,0.001021856,0.001551708,0.001324629,0.000993471,0.001513861,0.001371937,0.001248936,0.00139086,0.001088088,0.001438168,0.001305705,0.000955625,0.001031318,0.001230012,0.00104078,0.001220551,0.000965087,0.001144858,0.000974548,0.000529851,0.00087047,0.000766392,0.000794777,0.000728546,0.000558236,0.000359542,0.000189233,0.000132463,0.000104078,0.000104078,0.000104078,0.00011354,0.000160848,0.000227079,0.000274387,0.000321696,0.00035008,0.000369004,0.000387927,0.000387927,0.000331157,0.000283849,0.000312234,0.000539313,0.000955625,0.000425773,0.000198694,0.000775854,0.000454158,0.000104078,0.000179771,0.000747469,0.000605545,0.000756931,0.00052039,0.000369004,0.000567698,0.000558236\nSRI-0000054.txt,CCNC(=O)N1CCN(CC1)C1=CC=C(Cl)C=C1,0.413410354,0.385423139,0.363593111,0.345681293,0.332247429,0.323851265,0.319933055,0.319989029,0.324355035,0.332975097,0.344617779,0.359730875,0.377586718,0.39807336,0.420407158,0.445035908,0.471511813,0.49989085,0.529277426,0.560007389,0.592080738,0.624769805,0.658074592,0.691995097,0.725747678,0.759332337,0.791909456,0.823255137,0.853761202,0.882492877,0.90882325,0.932131003,0.952701606,0.969449156,0.982905409,0.992919234,0.999177176,1,0.996753483,0.987926315,0.974637985,0.955808187,0.932494836,0.904194164,0.870900573,0.833336132,0.791752727,0.746749285,0.699338942,0.649465724,0.598305094,0.547866535,0.49763508,0.449536252,0.404359289,0.36214897,0.323263533,0.288425047,0.257801436,0.231431882,0.209036512,0.190357845,0.175160787,0.162975153,0.153190822,0.145763015,0.140333496,0.136280947,0.133280717,0.130857025,0.129183389,0.128114277,0.127302648,0.126351083,0.125645805,0.125186815,0.124173677,0.123093371,0.122097026,0.121089486,0.119550189,0.117786995,0.115693551,0.113085143,0.110292019,0.107185438,0.103916531,0.100479701,0.096483127,0.092727242,0.088786642,0.084862835,0.080703934,0.076645788,0.072363744,0.068546288,0.064784806,0.061224832,0.057205868,0.053623505,0.050013154,0.04667148,0.043368989,0.040508696,0.03760922,0.034732134,0.032106934,0.029218653,0.02701326,0.024679127,0.022652852,0.020341108,0.018208482,0.016187805,0.014698886,0.013131601,0.011334822,0.010254516,0.008754401,0.007746861,0.006963219,0.005770964,0.005071283,0.004858581,0.004556319,0.004091731,0.00348161,0.003212932,0.003112178,0.002742747,0.002462875,0.002530044,0.002283757,0.002558031,0.002362121,0.00221099,0.00194791,0.002115833,0.001847156,0.001897533,0.00168483,0.001539297,0.001494517,0.001522505,0.001360179,0.001724012,0.001981495,0.001824766,0.001281814,0.000710875,0.000296664,3.36E-05,0,8.4E-05,0.00024069,0.000419808,0.000582134,0.000750057,0.000901188,0.001035527,0.001147476,0.001265022,0.001371374,0.00144414,0.001404958,0.001326594,0.00124823,0.001231437,0.001197853,0.001041124,0.001052319,0.000945968,0.00120345,0.001130684,0.001169866,0.001259425,0.00122584,0.001192255,0.001410556,0.00096276,0.001018735\nSRI-1052894-001.txt,CC(C)C(=O)\\N=C1/S[C@@H]2CS(=O)(=O)C[C@@H]2N1c1ccc(Oc2ccccc2)cc1,0.83791255,0.816044454,0.79754068,0.780719068,0.766701058,0.755486649,0.747075843,0.740907918,0.738104316,0.737543596,0.739225757,0.7431508,0.747636563,0.754309136,0.760364917,0.76703749,0.773205414,0.779877987,0.785933768,0.791316684,0.795353871,0.799951778,0.803484317,0.806848639,0.810269034,0.814138005,0.818904128,0.824511332,0.83213713,0.84094044,0.850921264,0.862023528,0.87439302,0.888624104,0.90363459,0.918947864,0.934614393,0.949809916,0.963676532,0.97555259,0.985202588,0.99251999,0.997678617,1,0.999685997,0.996164672,0.990501396,0.98237095,0.972653665,0.962224266,0.950398672,0.936975026,0.92068049,0.90210943,0.882607574,0.861922598,0.841215193,0.821674087,0.801942336,0.782317121,0.761604109,0.739691155,0.717856702,0.695792354,0.675185879,0.653514035,0.632503841,0.612458086,0.592664656,0.573252515,0.553531978,0.533968443,0.514892734,0.495581523,0.47631517,0.457177782,0.43816936,0.419374012,0.400713236,0.382478609,0.364384161,0.346390643,0.3293896,0.312567987,0.296183737,0.280276099,0.264934788,0.250187841,0.235956757,0.222336858,0.208879568,0.195910105,0.183490148,0.171686983,0.160455754,0.149645064,0.139473596,0.129879669,0.120190421,0.111235716,0.102752016,0.094924359,0.087264918,0.080009196,0.073325408,0.066843481,0.061079275,0.055427213,0.050105976,0.045216494,0.041409203,0.037394444,0.033480616,0.029774254,0.026931401,0.024032477,0.021369055,0.019496249,0.017191688,0.015571206,0.0136984,0.012016238,0.010704153,0.009403281,0.008332305,0.007592154,0.006706216,0.005769813,0.004911911,0.004525014,0.003885792,0.003336286,0.002781173,0.002276525,0.002018593,0.001816734,0.001570017,0.001502731,0.001115834,0.000970046,0.000992475,0.000919581,0.000958832,0.000835473,0.000577542,0.000532684,0.000510256,0.000487827,0.000465398,0.000426148,0.000409326,0.00038129,0.000342039,0.000319611,0.000308396,0.00028036,0.000252324,0.000229895,0.000207467,0.000185038,0.000157002,0.000123358,8.97E-05,9.53E-05,9.53E-05,0.00014018,0.000252324,0.000185038,0.000190645,0,8.97E-05,5.05E-05,0.000257931,0.000274753,3.36E-05,0.000471005,0.00028036,8.97E-05,0.000106537,8.41E-05,0.000151395\nSRI-1052884-001.txt,CC(=O)Nc1cccc(NC(=O)C[C@@H]2NC(=O)N(CCc3c[nH]c4ccccc34)C2=O)c1,0.966682919,0.982447587,0.993011539,1,0.99581505,0.982813262,0.9622745,0.935234845,0.90128799,0.864517309,0.826730863,0.791361937,0.760990574,0.734722899,0.712437023,0.694315781,0.678469852,0.664675768,0.651999025,0.639261336,0.626442386,0.612810824,0.597940029,0.58239883,0.566288802,0.549995937,0.533804648,0.518080611,0.502699902,0.488099301,0.473819681,0.459814318,0.44605477,0.432240371,0.418169998,0.403695352,0.388361368,0.372722656,0.356545588,0.340051601,0.323277263,0.306395254,0.289629043,0.273090362,0.256643101,0.240898749,0.226054364,0.212613766,0.200548513,0.190313668,0.182022997,0.175548513,0.170490005,0.166680887,0.163759548,0.161201853,0.159150008,0.157695433,0.156953925,0.157016902,0.157526816,0.158052982,0.158335365,0.157636519,0.155781732,0.15212498,0.147275719,0.141821063,0.137105883,0.134015927,0.131976272,0.129536405,0.124589631,0.116175037,0.105082886,0.092838859,0.080066634,0.0679059,0.056762961,0.047052251,0.038893629,0.032057533,0.02658053,0.021989274,0.018204534,0.015100358,0.012674712,0.010470502,0.008818869,0.007506501,0.006346498,0.005462782,0.004765968,0.004203234,0.003723793,0.003311393,0.002994474,0.002758817,0.002462214,0.002161547,0.001946205,0.001734926,0.001403787,0.001135625,0.001032017,0.000883715,0.000702909,0.000546481,0.000377864,0.000369738,0.000416464,0.000312856,0.000178775,0.000296603,0.000327076,0.000184869,0.000229563,0.000272225,0.000209248,0.000272225,0.00027832,0.000213311,0.000247847,0.000241752,0.000168617,0.000174712,0.000195027,9.75E-05,0.000136112,7.31E-05,8.13E-05,0.000109703,2.44E-05,0.000115797,9.95E-05,0.000154396,0.000180806,0.000158459,0.000115797,0.000138144,0.000111734,9.55E-05,0.000117829,0.000109703,4.88E-05,6.7E-05,8.53E-05,8.94E-05,8.33E-05,7.72E-05,7.31E-05,6.5E-05,4.67E-05,3.66E-05,2.84E-05,2.23E-05,1.83E-05,1.42E-05,1.22E-05,1.42E-05,1.83E-05,2.44E-05,3.25E-05,5.08E-05,5.49E-05,3.25E-05,2.84E-05,8.94E-05,1.22E-05,5.69E-05,2.03E-05,0.000107671,0,5.08E-05,3.05E-05,2.44E-05,5.08E-05,8.13E-06,3.05E-05,4.88E-05,2.03E-05\nSRI-0000691.txt,[O-][N+](=O)C1=CC=C(C=C1)N1CCNCC1,0.52661591,0.534448726,0.540714979,0.548547796,0.552934173,0.554500736,0.555753987,0.554814049,0.554500736,0.548547796,0.54196823,0.536328602,0.523263465,0.511138265,0.497665821,0.482376163,0.464893317,0.448099759,0.429739637,0.408089733,0.389353636,0.367829057,0.347651722,0.327098412,0.30726572,0.289563555,0.271328759,0.253626594,0.236237742,0.21960084,0.203371244,0.188488893,0.175329762,0.162076636,0.149888774,0.138264875,0.127800232,0.118745496,0.11116333,0.10348717,0.095027728,0.087852868,0.08045869,0.074819062,0.066923583,0.06140928,0.054892377,0.048657455,0.042735846,0.036281605,0.030391328,0.025033681,0.019958016,0.016668233,0.012281856,0.00817746,0.006391578,0.003133127,0.002067864,0.001065263,6.27E-05,0,0.000469969,0.002443839,0.00347777,0.004261052,0.007206191,0.01040198,0.013033806,0.018203465,0.020427985,0.024093743,0.026380926,0.032459191,0.035780305,0.040761976,0.045430335,0.050662656,0.055581665,0.060218692,0.065920983,0.070652004,0.075696337,0.08095999,0.086536955,0.092207914,0.097565561,0.103957139,0.111225992,0.117460914,0.124761099,0.132938559,0.139612119,0.148102892,0.156249021,0.165241094,0.173011248,0.181846665,0.19262462,0.201742018,0.212331986,0.223799229,0.234859166,0.247454335,0.259516872,0.271015446,0.284519222,0.29783501,0.310994141,0.323056678,0.338471661,0.352696055,0.366011843,0.381677476,0.395588558,0.411097534,0.425541248,0.440298274,0.455180625,0.471817527,0.488391766,0.503650092,0.520067676,0.53726854,0.554751386,0.571043644,0.587837203,0.604411442,0.621392988,0.637340602,0.652410941,0.667042642,0.683679544,0.698248582,0.71551211,0.730175142,0.744430868,0.759375881,0.773098975,0.788670614,0.802707021,0.815709497,0.829307266,0.842184416,0.85540621,0.868440016,0.877181439,0.88191246,0.88783407,0.900899207,0.915656233,0.928909359,0.939217345,0.945702917,0.950465269,0.95419369,0.957734123,0.961838519,0.965754927,0.97004731,0.974465019,0.979916659,0.985744274,0.991477896,0.996334242,0.999655356,1,0.99752483,0.994203716,0.99085127,0.985618949,0.978757402,0.971237898,0.962747125,0.954037034,0.945640254,0.934517655,0.924397656,0.911833819,0.900523232,0.887489426\nSRI-0000685.txt,CC1=CC=C(C=C1)N1CCNCC1,0.55397217,0.561189721,0.574114172,0.591570573,0.613223224,0.637225775,0.664753177,0.693287678,0.72501133,0.756231432,0.788458633,0.819510885,0.848884637,0.877754838,0.90427514,0.929620491,0.951440992,0.970240193,0.985010994,0.995081995,0.999781795,1,0.99352099,0.983147859,0.967571378,0.946103362,0.920136966,0.889907179,0.855363647,0.81717777,0.776071303,0.73323598,0.688134683,0.64127096,0.594390453,0.54816456,0.501754033,0.45724021,0.414085973,0.373097001,0.334256508,0.299024791,0.26666331,0.237591688,0.211625292,0.189049465,0.170585964,0.154388438,0.141598268,0.131309062,0.122648002,0.117411081,0.113097336,0.110059251,0.108817161,0.108078621,0.108498246,0.108229686,0.109471776,0.110411736,0.112157376,0.112711281,0.112795206,0.114423351,0.114356211,0.113617671,0.112744851,0.112258086,0.110613156,0.108733236,0.106198701,0.103546671,0.09985397,0.09740336,0.09320711,0.088591235,0.084797825,0.080349799,0.076287829,0.071906944,0.067710694,0.062708763,0.058445373,0.054316263,0.049465398,0.046192323,0.042214277,0.038722997,0.035131007,0.031203317,0.027896672,0.025714621,0.022894741,0.019839871,0.017120701,0.016046461,0.014233681,0.011783071,0.010608121,0.009768871,0.008207865,0.006932205,0.00627759,0.005757255,0.0046998,0.00355842,0.00312201,0.00339057,0.003239505,0.00281988,0.001930275,0.001695285,0.001493865,0.001124595,0.001292445,0.00140994,0.001359585,0.001225305,0.00097353,0.00144351,0.000587475,0.00117495,0.00154422,0.001023885,0.000889605,0.000788895,0.00070497,0.001191735,0.00137637,0.00137637,0.000520335,0.000587475,0.001762425,0.001225305,0.001762425,0.000621045,0.00107424,0.00083925,0.000956745,0.00127566,0.000453195,0.00070497,0.000755325,0.000453195,0.00080568,0.00083925,0.000822465,0.00077211,0.00070497,0.000553905,0.000419625,0.000285345,0.000218205,0.000151065,0.000151065,0.00020142,0.00023499,0.000251775,0.00023499,0.00023499,0.00023499,0.00020142,0.00016785,0.00013428,0.000184635,0.000386055,0.00023499,0,0.001091025,0.000990315,0.00060426,0.00013428,0.00030213,0.000285345,0.000990315,0.001426725,0.00030213,0.00083925,0.00023499,0.000352485,0.000990315\nSRI-1053358-001.txt,CCC(NC(=O)CCc1c[nH]c2ccccc12)C(O)=O,0.980437138,0.995539412,1,0.993149812,0.972248773,0.93554451,0.881157204,0.808545211,0.721531893,0.625310648,0.529471739,0.439431594,0.358408207,0.289906328,0.23430829,0.190403365,0.156885235,0.131555471,0.112661696,0.098515262,0.088096604,0.080226853,0.074428089,0.069871917,0.066653922,0.064359906,0.062894284,0.061912955,0.061906583,0.062499203,0.063544255,0.064965271,0.066972536,0.069518257,0.07260562,0.075896897,0.079697955,0.083878162,0.088300516,0.092866246,0.097683681,0.102727331,0.107863379,0.113222456,0.118530555,0.124087173,0.129478111,0.134642834,0.139699229,0.144730134,0.14938189,0.153638565,0.157898426,0.161552922,0.164783662,0.167074492,0.168654814,0.170088575,0.171605174,0.173539158,0.175689798,0.177553686,0.178818582,0.178560505,0.176680686,0.172914675,0.167444083,0.161145097,0.156219333,0.153472886,0.152153827,0.150267635,0.145000956,0.135133499,0.121821831,0.107264385,0.092859874,0.079812655,0.068658,0.058895686,0.050340916,0.042894921,0.036474861,0.031036131,0.026094437,0.02222647,0.018645256,0.01574906,0.013305295,0.011495571,0.010080928,0.008631237,0.007544765,0.006652648,0.006018607,0.005512012,0.00494488,0.004380934,0.00389027,0.003702288,0.003342255,0.003004524,0.002765564,0.00265405,0.00233225,0.001908494,0.001666348,0.001659976,0.001389154,0.001309501,0.001245778,0.000908048,0.000873001,0.000828395,0.000946282,0.000812464,0.000863442,0.00071688,0.000678647,0.000605365,0.000449245,0.000449245,0.000484292,0.000538457,0.000484292,0.000535271,0.000681833,0.00067546,0.000512968,0.000401453,0.00028038,0.000375964,0.000347289,0.000404639,0.000289938,0.000340916,0.00033773,0.000366405,0.000226216,0.000210285,0.000226216,0.000226216,0.000350475,0.000264449,0.000168865,0.000146562,0.000127445,0.000111515,0.000108329,0.000114701,0.000111515,0.000108329,0.000108329,0.000111515,0.000108329,0.000108329,0.000101956,0.000101956,0.000105142,0.000101956,9.88E-05,9.56E-05,9.88E-05,9.56E-05,7.01E-05,3.82E-05,0,6.05E-05,0.000156121,7.33E-05,8.28E-05,0.000219843,8.6E-05,0.000187982,0.000165679,0,0.000127445,3.82E-05,9.56E-05,0.000229402,0.00014019\nSRI-1053146-001.txt,CC(C)C(NS(=O)(=O)c1ccc2NC(=O)c3cccc1c23)C(O)=O,0.381826922,0.349727595,0.324141175,0.303775418,0.288526946,0.277310273,0.269453433,0.264181079,0.261183075,0.26014928,0.260769557,0.263302354,0.268471328,0.275087614,0.283926559,0.294522955,0.307548769,0.322538793,0.339596407,0.358463161,0.378777228,0.400641987,0.424729404,0.451039481,0.479882354,0.511221842,0.543765701,0.57837198,0.614296348,0.65110461,0.6881248,0.724974414,0.761689634,0.796936866,0.831098614,0.862613847,0.892924709,0.920211721,0.944154408,0.964184181,0.979169036,0.990840579,0.997813524,1,0.996898616,0.988137205,0.97274917,0.952331724,0.927055442,0.897917937,0.866464732,0.83328509,0.798456544,0.76301806,0.728432457,0.693459181,0.659307771,0.624179425,0.587407346,0.547554559,0.503545916,0.456771873,0.408007774,0.358235726,0.309704231,0.262899174,0.219479794,0.179983666,0.144943193,0.114792569,0.089407739,0.069109179,0.053183571,0.041274255,0.032399127,0.025514054,0.02059836,0.017171331,0.01455583,0.012488241,0.010834169,0.009805543,0.008704552,0.007944713,0.007381295,0.007226225,0.006569766,0.006388852,0.006275134,0.006156248,0.006032192,0.005773744,0.005866785,0.005928813,0.006001179,0.005866785,0.005933982,0.006109727,0.006249289,0.006580104,0.0066473,0.006631793,0.00695227,0.007334774,0.007329605,0.007629405,0.007526026,0.008306541,0.008306541,0.008446103,0.008797593,0.009040535,0.009329998,0.009603953,0.009423039,0.009634967,0.010141527,0.010012302,0.010012302,0.010188047,0.010069161,0.010038147,0.010322441,0.010043316,0.010281089,0.010244906,0.010069161,0.010095006,0.010120851,0.009831388,0.009919261,0.009939937,0.009655643,0.009143915,0.009061211,0.008926818,0.00846161,0.008182485,0.007810319,0.007293422,0.007195211,0.006724835,0.006812707,0.006414696,0.006176924,0.005866785,0.005623843,0.00543776,0.005158636,0.00453319,0.003840547,0.003251284,0.002791246,0.002450094,0.002181307,0.001948703,0.00171093,0.001478326,0.001225047,0.000966598,0.000692642,0.000408349,0.000124055,0.000134393,0.0001499,0.00020159,0.000325645,0.000491053,0.000418687,0.000160238,8.79E-05,0.000315307,0.0001499,0.00025328,0.000175745,0.000248111,0.000139562,0.000108548,0.000237773,0.000170576,0\nSRI-002238.txt,[O-][N+](=O)C1=CC2=C(C=C1)C(CCCl)=CN2,0.183904332,0.146424636,0.116015118,0.098376182,0.086596975,0.078581892,0.079644079,0.089922947,0.109555696,0.13855339,0.176688102,0.222908709,0.275369663,0.33184701,0.389459568,0.446268848,0.500610757,0.552148936,0.600369995,0.634647642,0.667050972,0.707945156,0.746584406,0.783037323,0.817819508,0.851231915,0.88284967,0.912221342,0.938787071,0.961816605,0.979953441,0.992440772,0.998937813,1,0.997335682,0.990039788,0.979544056,0.967452832,0.955284157,0.944314868,0.934883536,0.927149489,0.920532952,0.914606836,0.908401896,0.900643508,0.890340298,0.880326976,0.867065134,0.844500308,0.814666141,0.777305941,0.732083346,0.679255053,0.619799158,0.555224852,0.487636591,0.419028188,0.351915698,0.288186715,0.243652329,0.202760357,0.153977225,0.11243909,0.078216766,0.051055769,0.03038075,0.015545543,0.005895136,0.000876304,0,0.002885607,0.009187914,0.013578285,0.024844102,0.039066338,0.056171968,0.075983961,0.098442569,0.12310964,0.149878955,0.178546929,0.208865717,0.240498962,0.272997446,0.289678202,0.323280917,0.357204502,0.391134725,0.42477506,0.45795954,0.490347379,0.52153362,0.551755042,0.580383184,0.607480007,0.626698945,0.644731776,0.667393969,0.688221678,0.706949356,0.723840336,0.738717587,0.751775843,0.762904461,0.772382263,0.779886169,0.784845253,0.789036464,0.791375487,0.791185179,0.794424848,0.795821181,0.792254004,0.78857397,0.784699202,0.77984855,0.773960053,0.768956711,0.763694462,0.75632333,0.74844102,0.740755657,0.732543627,0.7249158,0.717146347,0.70993233,0.703293664,0.696918331,0.692704991,0.688310194,0.683452903,0.678664212,0.675041713,0.671704677,0.668976185,0.666681419,0.665187719,0.664183068,0.66355682,0.663627633,0.663603291,0.664477382,0.665718813,0.667192597,0.668989462,0.670952295,0.673096584,0.675530761,0.677562193,0.679184241,0.680784159,0.682700521,0.685406884,0.687252433,0.689002828,0.690596108,0.69161625,0.692047763,0.692056615,0.691439219,0.691211291,0.68954056,0.687774675,0.684984222,0.681335169,0.677663986,0.672211428,0.666506601,0.658967289,0.650894671,0.64610598,0.636791931,0.626597152,0.615475174,0.602545265,0.589557821,0.575826846,0.561996291,0.547493018,0.532252854\nSRI-1053087-001.txt,CSCC[C@H](NC(=O)CCn1c(=O)[nH]c2ccccc2c1=O)C(O)=O,1,0.973500962,0.929308803,0.871325223,0.805998862,0.736201805,0.665212561,0.596011597,0.53054976,0.469341859,0.415151597,0.368873114,0.330641884,0.2999431,0.276397431,0.258568835,0.245725743,0.235917306,0.22849324,0.222830357,0.218359661,0.214837294,0.211477497,0.207819655,0.203240578,0.196480342,0.187270707,0.175375945,0.161180806,0.145427697,0.129008047,0.112769935,0.096756713,0.081214946,0.06694394,0.054439537,0.043815536,0.035310375,0.02843634,0.023177175,0.019112905,0.016034899,0.013720974,0.011927277,0.01068361,0.009567291,0.008751727,0.008136668,0.007808817,0.007646246,0.007608313,0.007751917,0.008085187,0.00840491,0.008833013,0.009537486,0.01018235,0.011014171,0.012013981,0.012994825,0.014249329,0.015487577,0.016858591,0.018367789,0.020085621,0.021762809,0.023735335,0.025721408,0.027910694,0.02999431,0.032243206,0.034681768,0.037312705,0.039762105,0.042477037,0.045159455,0.047874387,0.050670604,0.053306961,0.055943317,0.058479421,0.060899016,0.063229198,0.065350746,0.067469586,0.069599263,0.071723521,0.073639147,0.075381364,0.076809277,0.078025849,0.078822446,0.079250549,0.079234292,0.078716775,0.077971658,0.076844501,0.07562522,0.074202726,0.072606823,0.070872734,0.06900317,0.066908717,0.064182946,0.061318991,0.057972742,0.054060205,0.049895684,0.045435825,0.040599344,0.035933563,0.031210881,0.026853984,0.022597339,0.018738993,0.015536348,0.012582979,0.010244669,0.008114992,0.006445932,0.005139946,0.003982984,0.003178259,0.002406048,0.001904788,0.001452299,0.001089224,0.000850787,0.000644864,0.000550031,0.000533774,0.000292627,0.000211342,0.000176118,0.000200504,0.000219471,0.000130057,0.000197794,8.4E-05,6.23E-05,2.44E-05,1.08E-05,1.08E-05,0.000130057,7.04E-05,1.63E-05,3.25E-05,2.44E-05,1.9E-05,8.13E-06,8.13E-06,2.71E-06,0,0,0,0,0,0,0,0,0,0,0,0,0,0,2.98E-05,8.67E-05,8.13E-06,4.06E-05,0.000124638,1.9E-05,4.34E-05,6.23E-05,5.69E-05,7.86E-05,2.71E-05,0.000121928,0,4.06E-05,3.52E-05\nSRI-1052937-001.txt,CC(C)(C)OC(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(=O)N1CCC(CC1)C(O)=O,1,0.997432628,0.985365979,0.961189891,0.923920206,0.870518866,0.801798872,0.720284807,0.630127256,0.53770186,0.44929868,0.37009525,0.302402205,0.24660465,0.202189113,0.167914695,0.141342393,0.121488049,0.106212185,0.094402273,0.085416471,0.078313408,0.072793558,0.068471815,0.065476547,0.063208702,0.06149712,0.060341803,0.059785539,0.059665728,0.060102181,0.061124851,0.062759412,0.064911725,0.067658813,0.070885144,0.074261239,0.078172202,0.082600919,0.086948336,0.091685137,0.096588818,0.10161231,0.106742775,0.11207863,0.117085006,0.122480766,0.127606952,0.13239938,0.13730734,0.141860147,0.146023568,0.149904579,0.153118073,0.155796698,0.157559627,0.158586576,0.159455204,0.161179622,0.16331482,0.165304533,0.16703323,0.167589494,0.167046067,0.164354605,0.159343951,0.152690178,0.146254632,0.142159673,0.141012914,0.140961566,0.139160127,0.132189712,0.120028926,0.104727388,0.089122044,0.074804666,0.062738017,0.052596897,0.043850716,0.036632121,0.030393407,0.025173084,0.020971151,0.017145767,0.014167615,0.011707217,0.009726061,0.00801448,0.006884836,0.006029046,0.005472782,0.004984981,0.004762475,0.004347417,0.004454391,0.004347417,0.004249001,0.004193374,0.004065006,0.004142027,0.00409068,0.004274675,0.004240443,0.004244722,0.004308906,0.004377369,0.004094959,0.004107795,0.003979427,0.003915242,0.003893848,0.003671342,0.003363257,0.003423163,0.003346142,0.003093683,0.003080847,0.003217773,0.002717135,0.002806994,0.002734251,0.002742809,0.002383377,0.002306356,0.002096687,0.001754371,0.001437728,0.001065459,0.000924254,0.001005554,0.000821559,0.000470685,0.000329479,0.000470685,0.000551985,0.000551985,0.000342316,0.000269574,0.000278132,0,0.00020539,0.000226785,0.000278132,0.000231063,0.000269574,0.00028669,0.000265295,0.0002439,0.000209669,0.0001626,0.000141205,0.00012409,0.000111253,0.000115532,0.000111253,0.000115532,0.00012409,0.000132648,0.000141205,0.000149763,0.000158321,0.000166879,0.000166879,0.000171158,0.000188274,0.00020539,7.27E-05,0.00012409,0.000132648,0.000188274,0.000111253,0.000320922,2.57E-05,0.000261016,0.000316643,0.000402222,0.000175437,0.00012409,0.000261016,0.000445011\nSRI-031143.txt,CC1CC(=O)NC2=CC=CC=C2N1S(=O)(=O)C1=CC=C(OC2=CC=CC=C2C)C=C1,0.909858212,0.905528309,0.894417758,0.883127547,0.876445246,0.870074004,0.861122213,0.856935262,0.861436046,0.858564823,0.851218792,0.842952586,0.832888283,0.821067269,0.810628062,0.799317023,0.788837318,0.781160038,0.776980479,0.778311803,0.78551717,0.796679395,0.810345534,0.827268179,0.847743263,0.866142206,0.883627633,0.900229597,0.911788764,0.916465335,0.919893795,0.921285639,0.922166891,0.925016355,0.926909769,0.925367958,0.923791074,0.923792595,0.924727369,0.928256751,0.937332196,0.945978896,0.954386546,0.964290738,0.971458696,0.978080636,0.986778598,0.99540437,1,0.999548874,0.995510968,0.989714562,0.981259288,0.971350071,0.964425505,0.956886632,0.938635397,0.912702083,0.889109712,0.871251412,0.858365071,0.841034009,0.819947105,0.801064729,0.783790547,0.767523337,0.750198557,0.731928105,0.712051599,0.687440851,0.659724532,0.628800123,0.594000099,0.55534407,0.513873305,0.472047461,0.43044045,0.390103602,0.352076259,0.316060861,0.282850003,0.252224636,0.224288859,0.199232365,0.176447801,0.156174567,0.137992544,0.121703452,0.107325133,0.094423839,0.08302552,0.0729929,0.064089749,0.05620307,0.049335434,0.043318682,0.03799498,0.033367034,0.02941217,0.025869125,0.022773536,0.020101409,0.017718334,0.015604433,0.013963216,0.012606143,0.011025225,0.009221103,0.007793577,0.006914327,0.006358756,0.005652631,0.004779868,0.00420217,0.003772301,0.003303169,0.002888809,0.002602247,0.002290765,0.002011072,0.001789677,0.001600842,0.001402833,0.00118092,0.000994055,0.000872002,0.000763027,0.000644167,0.000583747,0.000465662,0.000356792,0.000304134,0.000252416,0.000217347,0.000162039,9.12E-05,4.71E-05,4.27E-05,2.69E-05,4.53E-10,1.22E-05,3.76E-05,3.96E-06,2.05E-05,9.47E-05,0.00012787,0.000192476,0.000476271,0.000609874,0.000548167,0.00038476,0.000271087,0.00034691,0.000185416,0.000123301,0.000339682,0.000458294,0.000366632,0.000603642,0.001038936,0.001013542,0.000526605,0.000753854,0.000803231,0.000647386,0.000586666,0.000380686,0.000881469,0.001800227,0.001615341,0.000234849,7.26E-06,0.000988267,0.001670702,0.001552693,0.001140354,0.000501335,0.00054384,0.001633708,0.002362384,0.001427922\nSRI-1052927-001.txt,COc1ccc(cc1[N+]([O-])=O)S(=O)(=O)NC(Cc1c[nH]c2ccccc12)C(O)=O,0.997993579,1,0.994404112,0.979843757,0.955085632,0.921547116,0.880590366,0.837664011,0.793062571,0.748221833,0.706381522,0.668995833,0.635365279,0.605581899,0.579443209,0.555734313,0.533111461,0.511390578,0.489835363,0.467451809,0.444976217,0.422647886,0.400319555,0.378561857,0.358184723,0.338930449,0.321590558,0.305870529,0.2918624,0.279602986,0.268812494,0.25921849,0.250850428,0.2431524,0.23669688,0.230935323,0.225679974,0.221151722,0.21703764,0.213385586,0.210326255,0.207589056,0.205100358,0.203082893,0.201334178,0.200005154,0.198637475,0.197203528,0.19591132,0.194692742,0.193144668,0.191605799,0.190037478,0.18830717,0.186197667,0.183907771,0.181452207,0.17899112,0.177015992,0.175523142,0.174229093,0.17285221,0.170818178,0.168263213,0.164620363,0.159714757,0.154058124,0.148745711,0.14478073,0.142325165,0.140388693,0.136788181,0.130433902,0.121318494,0.110498549,0.099630745,0.089674113,0.080950786,0.073560163,0.067353145,0.062221126,0.057911924,0.054512053,0.051824554,0.049724255,0.048303194,0.047320232,0.046725669,0.046462441,0.046499256,0.046705421,0.047136157,0.047692064,0.048330805,0.048936413,0.049713211,0.05051946,0.051250239,0.052087782,0.052709956,0.053394716,0.05411261,0.054707173,0.05528701,0.05587421,0.056269972,0.056483499,0.056792746,0.056987866,0.057190349,0.057182986,0.056947369,0.056831402,0.056647326,0.056281017,0.055822669,0.055340392,0.054778962,0.054007687,0.053420487,0.052516677,0.051646001,0.050686969,0.049582517,0.048524084,0.047428836,0.046103494,0.044862827,0.04350067,0.042335474,0.041109532,0.039861502,0.038444122,0.03704515,0.035902042,0.034532522,0.033258721,0.031887361,0.030486548,0.029117028,0.027749348,0.026525248,0.025244084,0.023996053,0.02278852,0.021731927,0.020958811,0.020511508,0.019861723,0.018562151,0.017030645,0.015620628,0.014551151,0.013813009,0.013258942,0.012776665,0.012303592,0.011799225,0.011241477,0.010617462,0.009929021,0.009137497,0.008224483,0.007202866,0.006149955,0.005271916,0.004660786,0.004204279,0.003644691,0.003204751,0.002970975,0.002558646,0.002247559,0.001791052,0.001560958,0.001253553,0.00097928,0.000677397,0.000432577,0.000213527,0\nSRI-1052783-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)Cc1csc(n1)-c1c(Cl)cccc1Cl,1,0.997520619,0.98813439,0.967768043,0.935890284,0.891438519,0.833881454,0.765344271,0.689492913,0.609479737,0.531715714,0.461301286,0.399104235,0.346116315,0.302691723,0.267519928,0.239857117,0.218587567,0.201922583,0.189260029,0.179997769,0.17321489,0.168610324,0.165581937,0.16397034,0.163545303,0.164200568,0.165776746,0.168273837,0.171461613,0.174821175,0.178579208,0.18265779,0.186920555,0.19100268,0.195120223,0.199212974,0.20315519,0.206808735,0.210062038,0.212688411,0.215141227,0.217356732,0.21907636,0.220592324,0.222430608,0.223827917,0.225055211,0.225899971,0.226502107,0.226870472,0.227031632,0.227176852,0.226951937,0.226211665,0.224904677,0.222543951,0.220252295,0.218073981,0.216554475,0.215461776,0.214161872,0.212123466,0.20884537,0.203651066,0.196134999,0.186644281,0.1771819,0.169667604,0.164723009,0.161126135,0.156300196,0.147661324,0.134545397,0.118907585,0.10303246,0.0883315,0.075382046,0.064504646,0.055178631,0.047294198,0.04042277,0.034599766,0.029864148,0.025760772,0.022411836,0.019700455,0.017329104,0.015427065,0.014015588,0.012756417,0.011683199,0.010918133,0.010330165,0.009742197,0.009366748,0.009078077,0.008725651,0.008378538,0.008300614,0.008118203,0.008019027,0.007928707,0.007737441,0.007748067,0.007693166,0.00753909,0.007471793,0.007411579,0.007331885,0.007280526,0.007222083,0.007156557,0.007044985,0.006959977,0.006883825,0.006830695,0.006710268,0.006472956,0.006338361,0.006198453,0.006056774,0.005775187,0.005628196,0.00554673,0.005309418,0.005107525,0.00490032,0.004622275,0.004340688,0.004239742,0.004014827,0.003637607,0.003612813,0.003341852,0.003060265,0.002867227,0.002624602,0.002380206,0.002201336,0.002057886,0.001783384,0.001556697,0.001303446,0.001200729,0.001115722,0.001034256,0.000984669,0.000919142,0.000798715,0.000669433,0.000557861,0.000478166,0.000423266,0.000387846,0.000361281,0.000334716,0.000309923,0.000279816,0.000249709,0.000217831,0.000185954,0.000148763,0.000120427,0.000106259,0.000100946,0.000106259,0.000129282,3.54E-06,8.5E-05,0,4.43E-05,7.08E-05,0.000115114,0.000150534,9.92E-05,0.000146992,8.15E-05,6.38E-05,5.14E-05,0.000134595\nSRI-1053289-001.txt,C[C@H](NC(=O)N1C[C@H]2C[C@@H](C1)c1cccc(=O)n1C2)C(O)=O,0.662599698,0.673377883,0.685880578,0.704850183,0.725544298,0.747100668,0.769088166,0.791937918,0.814830782,0.833239922,0.846820435,0.858460875,0.863073938,0.861780556,0.851217935,0.832032766,0.806553136,0.775167062,0.734296185,0.684888985,0.627893943,0.563052382,0.490364303,0.415951714,0.342660056,0.275878422,0.218452253,0.172235396,0.137357189,0.11015305,0.088424229,0.075145505,0.065790041,0.061651218,0.059711145,0.05884889,0.057210606,0.05837465,0.060400948,0.063246389,0.066867859,0.068549256,0.075231731,0.0808795,0.086829058,0.092864842,0.100970037,0.110670403,0.118861824,0.128605303,0.14067687,0.152662212,0.165940936,0.180814831,0.195085148,0.21039017,0.229316663,0.249019185,0.268463031,0.288941582,0.311187756,0.333477042,0.3573615,0.384953654,0.411511102,0.438068549,0.464755335,0.497477905,0.526449666,0.555507653,0.586635051,0.618754042,0.650916146,0.681612416,0.712610476,0.743392973,0.774046131,0.803061005,0.831903427,0.858245311,0.884069843,0.905195085,0.926018538,0.944039664,0.961500323,0.975123949,0.986548825,0.99370554,0.999223971,1,0.993317525,0.984867428,0.97309765,0.955033412,0.934253072,0.908169864,0.881095064,0.853244234,0.820866566,0.789308041,0.753869368,0.717611554,0.677646044,0.634059064,0.587367967,0.536796723,0.483724941,0.42974779,0.3752964,0.323561112,0.273852123,0.229057987,0.189696055,0.153610692,0.124337142,0.098253934,0.078810088,0.060487174,0.050786808,0.039146368,0.031903427,0.027937055,0.021599483,0.016770856,0.015994826,0.013839189,0.010691959,0.010002156,0.009269239,0.006941151,0.008191421,0.007975857,0.006941151,0.004225049,0.002974779,0.00534598,0.006596249,0.00487174,0.004957965,0.005044191,0.003837034,0.004785514,0.00219875,0.002328088,0.002543652,0.002716103,0.002802328,0.002500539,0.001983186,0.001250269,0.000776029,0.000776029,0.000646691,0.00047424,0.000689804,0.000862255,0.001164044,0.001336495,0.001595171,0.00172451,0.001896961,0.002069412,0.002155637,0.002069412,0.001896961,0.001767622,0.002371201,0.003923259,0.002931666,0.003190343,0.002759215,0.001896961,0.001077818,0.001336495,0.003664583,0.001552059,0.002284975,0.002026299,0,0.001638284,0.002974779\nSRI-1052793-001.txt,CSCC[C@H](NC(=O)CCCCCn1nnc2ccccc2c1=O)c1nc2ccccc2[nH]1,1,0.976232641,0.953018688,0.929833861,0.906270389,0.882124383,0.857483223,0.831764377,0.805259111,0.778287818,0.751666045,0.725626806,0.698975906,0.66976186,0.636673968,0.598547162,0.557012536,0.514050704,0.472603458,0.434942679,0.402524699,0.375815547,0.353912294,0.336290661,0.322105974,0.310542688,0.300960015,0.292105508,0.284418981,0.277434407,0.271044016,0.265428395,0.260555504,0.256766125,0.254045694,0.252461203,0.251663133,0.251194193,0.251045647,0.252088382,0.255554455,0.26207009,0.271009064,0.280979122,0.290844324,0.30095419,0.311914554,0.325449716,0.342319881,0.363905653,0.388042921,0.409107326,0.41788319,0.409235483,0.390384705,0.37792723,0.385109866,0.413179234,0.445696244,0.455232314,0.428965887,0.381471945,0.332588662,0.293369606,0.265821605,0.247349473,0.235573562,0.228251118,0.223622891,0.220197595,0.217413086,0.214625664,0.211651831,0.208206147,0.204775026,0.201358468,0.197933172,0.194828269,0.192151529,0.18990295,0.187995153,0.186148523,0.183795088,0.180929024,0.177107606,0.172062867,0.166088988,0.159678209,0.15288587,0.1462013,0.140108002,0.135019573,0.131046696,0.128585493,0.127076731,0.125701953,0.123596095,0.119684383,0.11355322,0.105068622,0.094673315,0.083276051,0.071491402,0.060519387,0.050322141,0.041333652,0.0338714,0.027725673,0.022613944,0.018346887,0.015110914,0.012370095,0.010319578,0.008464209,0.006926321,0.005880674,0.004916581,0.004220454,0.003454423,0.002778684,0.002493243,0.00222819,0.001802941,0.001593229,0.001252447,0.001051473,0.000821372,0.000905839,0.000728167,0.000617485,0.00065535,0.00056797,0.000483503,0.000401948,0.000364083,0.000291267,0.000302917,0.000288354,0.000235926,0.000337869,0.000267965,0.000224275,0.000270878,0.000247577,0.000238839,0.000238839,0.000238839,0.000256315,0.000256315,0.000221363,0.000186411,0.000168935,0.000139808,0.000119419,0.000110681,9.9E-05,8.74E-05,7.86E-05,6.99E-05,6.99E-05,6.7E-05,6.7E-05,6.7E-05,6.99E-05,6.7E-05,6.99E-05,4.37E-05,0.000154371,0.000200974,9.32E-05,0.000113594,0.000212625,0.000177673,0.000119419,0.000122332,3.2E-05,0.000104856,0.000133983,0,6.99E-05,0.000145633\nSRI-1053299-001.txt,CCCCC(NC(=O)CCc1c[nH]c2ccccc12)C(O)=O,0.975263066,0.991096384,1,0.997144123,0.98120581,0.949602172,0.899708323,0.831587259,0.746120942,0.649252117,0.550136389,0.457005403,0.373890985,0.30301904,0.245040539,0.199094519,0.163732043,0.13712619,0.11694606,0.101826711,0.090592195,0.082276554,0.076060822,0.071399023,0.06820716,0.066086252,0.06474231,0.06428033,0.064385325,0.065120293,0.066329841,0.068177762,0.07052756,0.073391837,0.076506003,0.080191344,0.084275668,0.088769474,0.093555168,0.09860335,0.103893022,0.109344387,0.114907048,0.120748996,0.126559445,0.132443392,0.13829374,0.143997094,0.149683649,0.155189611,0.160340689,0.165262877,0.169880578,0.173943903,0.177433953,0.180012641,0.181789165,0.183217103,0.184781536,0.186831048,0.189222844,0.19141095,0.192704494,0.192786391,0.191131662,0.187133435,0.181280987,0.174393284,0.168839023,0.165695459,0.16450901,0.162959276,0.157845997,0.147548041,0.133075464,0.116920861,0.100959449,0.086518371,0.074076407,0.063221975,0.053770283,0.045576436,0.038541739,0.032514999,0.027332422,0.022987709,0.019298168,0.016293198,0.013832104,0.011820391,0.010318955,0.008966614,0.007918759,0.007173291,0.006669313,0.006049839,0.005644557,0.005415667,0.005193076,0.004888589,0.004743696,0.004672299,0.004477007,0.004271216,0.004151521,0.004010827,0.003777737,0.003584546,0.003563546,0.003303158,0.00324856,0.003292658,0.003191862,0.003116266,0.00301547,0.002830678,0.002755081,0.002578689,0.002610188,0.002442195,0.002442195,0.002345599,0.002202805,0.002169207,0.002114609,0.001881519,0.001784923,0.001728226,0.001610631,0.001501435,0.001430038,0.001375441,0.001310344,0.001217948,0.001100353,0.001077254,0.001016356,0.00091766,0.000837864,0.000758067,0.000661471,0.000657272,0.00046618,0.000550176,0.000485079,0.000476679,0.00045988,0.000428382,0.000382184,0.000317086,0.000275088,0.000245689,0.000216291,0.000186892,0.000182692,0.000186892,0.000191092,0.000191092,0.000188992,0.000188992,0.000186892,0.000182692,0.000170093,0.000153293,0.000134394,0.000144894,0.000186892,0.000264589,9.03E-05,5.46E-05,7.98E-05,0,5.46E-05,0.000102896,0.00023939,5.46E-05,5.25E-05,4.2E-05,7.14E-05,8.82E-05,7.14E-05\nSRI-0000478.txt,COC(=O)C1=CC2=CN=CC=C2C2=C1C=CC(=C2)C(F)(F)F,0.486585437,0.490618544,0.498236636,0.508095343,0.520642788,0.534982725,0.550667031,0.56814383,0.585620628,0.603993673,0.619677979,0.631777301,0.641187885,0.648178604,0.654407514,0.662518541,0.675155611,0.692856471,0.716606992,0.745107617,0.776476229,0.808741088,0.841005947,0.872240122,0.900740747,0.926687071,0.950616841,0.971633812,0.988169552,0.998431569,1,0.990589416,0.969679995,0.938347233,0.898809337,0.853970146,0.806531841,0.759290711,0.713909291,0.670230739,0.629836928,0.592638235,0.558446447,0.527324302,0.499267319,0.474916313,0.453263008,0.43487652,0.4194342,0.406362451,0.39550443,0.385887709,0.376015559,0.36483937,0.351503229,0.335500755,0.317983626,0.300273803,0.283473671,0.268457068,0.25517022,0.244119505,0.235582762,0.229210452,0.225603062,0.223429665,0.223080129,0.224558935,0.226772663,0.229793012,0.232911948,0.236290796,0.239261852,0.241928184,0.243823744,0.245858223,0.247610384,0.249286364,0.250711395,0.251733116,0.251952696,0.25134773,0.2496359,0.246324271,0.241363549,0.234941946,0.227081868,0.217702652,0.206979068,0.195502637,0.183488459,0.170967901,0.158218801,0.145303895,0.132622013,0.120688496,0.109333058,0.09851985,0.088226463,0.078555968,0.069387371,0.060285992,0.052363177,0.045542744,0.040107012,0.035500307,0.031892917,0.029437202,0.027685041,0.027030782,0.027344468,0.028796386,0.0300108,0.031081814,0.030674022,0.028984598,0.026035948,0.023302398,0.0213441,0.02017898,0.019928031,0.020035581,0.020273086,0.020452335,0.021214145,0.022464408,0.02444063,0.027259324,0.029885325,0.0313955,0.030826384,0.02815557,0.02389392,0.019470946,0.015469207,0.01252952,0.011131376,0.010333717,0.009849744,0.009661533,0.009858707,0.009908,0.00946884,0.009173079,0.008581556,0.007945221,0.00750158,0.007201337,0.006757695,0.005924187,0.004978647,0.004109288,0.00345951,0.003033793,0.0027694,0.002558783,0.002357127,0.002155472,0.001958298,0.001756642,0.001541543,0.001295076,0.001030683,0.00076629,0.000533266,0.000389867,0.000376423,0.000492935,3.58E-05,0.000138918,0.000112031,0.000165806,0,0.000103068,0.000273355,0.00021958,6.72E-05,0.000228543,9.41E-05,0.000224062,0.000259911\nSRI-0000468.txt,CCCCN(CCCC)CC(O)C1=CC2=C(Cl)C=C(Cl)C=C2C2=C1C=CN=C2,0.54899091,0.558234479,0.559775073,0.559004776,0.558234479,0.558619627,0.562856263,0.572099831,0.581728547,0.597904791,0.62139886,0.644892929,0.676860268,0.71383454,0.74849792,0.784316746,0.82090587,0.856339547,0.89292867,0.927977199,0.957248498,0.982283161,0.997303959,1,0.991911878,0.974965337,0.951856417,0.924510861,0.895470652,0.866892621,0.838430134,0.81370359,0.789285164,0.766330303,0.74580188,0.72404098,0.70378216,0.680904329,0.657833924,0.63145124,0.602680635,0.57082884,0.533392389,0.496456632,0.463064243,0.431173933,0.398975505,0.368779849,0.340201818,0.311893391,0.286049915,0.26432753,0.244184255,0.229933754,0.218302265,0.210714836,0.204398398,0.199738099,0.195424434,0.191341858,0.186604529,0.182560468,0.180172547,0.175358188,0.174626406,0.1733169,0.173856108,0.174780465,0.174626406,0.173663534,0.171237098,0.168001849,0.164805115,0.160298875,0.157371745,0.151941149,0.147319365,0.142196888,0.136535203,0.135341242,0.132260052,0.130835002,0.13002619,0.129718071,0.129718071,0.129486982,0.130141735,0.130064705,0.129641041,0.129525497,0.126521337,0.126251733,0.122323217,0.118818364,0.11404252,0.111423509,0.108765984,0.10691727,0.105261131,0.104529348,0.10271915,0.104221229,0.102603605,0.100023109,0.099753505,0.098906178,0.099830535,0.100562317,0.100523802,0.102834694,0.105376675,0.110884301,0.112193807,0.114735788,0.116468957,0.118279156,0.118356185,0.117585888,0.121706979,0.122708365,0.123401633,0.121745494,0.121283315,0.123786782,0.124749653,0.123940841,0.12432599,0.12559698,0.126136189,0.12575104,0.126174703,0.127214605,0.125019257,0.124133415,0.12424896,0.121899553,0.119280542,0.117085195,0.113464797,0.109728855,0.104490833,0.096171622,0.08823756,0.083038053,0.075874287,0.069711909,0.066284086,0.063780619,0.059967648,0.053189031,0.045640117,0.038977045,0.034278231,0.031312587,0.029386843,0.027846249,0.026459713,0.024919119,0.02326298,0.021452781,0.019411493,0.017100601,0.01448159,0.01163149,0.008858419,0.006778617,0.00577723,0.004583269,0.002233862,0.003812972,0.004583269,0.004159606,0.00134802,0.002156833,0,0.001694654,0.002888615,0.002233862,0.00157911,0.002426437,0.001116931\nSRI-1052803-001.txt,COc1ccc2c(C)c(CCC(=O)NC(Cc3c[nH]c4ccccc34)C(O)=O)c(=O)oc2c1C,1,0.978207499,0.945518747,0.90261476,0.850176553,0.790247175,0.724188655,0.653363026,0.582877904,0.512392783,0.446913126,0.388618185,0.338291127,0.295966004,0.26191522,0.234981051,0.213835514,0.197423037,0.184211333,0.173451285,0.164257574,0.156119437,0.148696366,0.141852158,0.136029474,0.131466669,0.128129693,0.125916392,0.124489664,0.123747357,0.123049316,0.122405756,0.121493195,0.120774723,0.120444431,0.120713432,0.122017577,0.124258119,0.127615526,0.131640328,0.13650278,0.141794272,0.147497778,0.153780148,0.160266822,0.167066763,0.173948427,0.180942458,0.187807096,0.194845392,0.201962006,0.209112671,0.216419969,0.223659165,0.230472727,0.236942376,0.242884238,0.248669466,0.254631758,0.260355694,0.266014935,0.271272376,0.27557299,0.278862295,0.28058186,0.280966634,0.279921275,0.279008714,0.27949564,0.281565927,0.283734962,0.284174217,0.280571645,0.273356284,0.263542848,0.253957552,0.246197379,0.240456417,0.237078579,0.235682497,0.236097916,0.238171609,0.241566472,0.24603053,0.251458225,0.257008502,0.263246606,0.269355317,0.274915809,0.280336694,0.285301298,0.289622343,0.293711842,0.297334845,0.300586695,0.303528683,0.305912238,0.307982525,0.309245809,0.309467139,0.308963188,0.307161901,0.303715962,0.298809244,0.292727774,0.28557711,0.277496859,0.268779858,0.259793857,0.250777209,0.241763967,0.232890333,0.224398067,0.21581727,0.206650799,0.196997402,0.186969446,0.176226424,0.164741095,0.152210407,0.139046374,0.125684846,0.11194876,0.098522537,0.085811379,0.073931061,0.063113127,0.053234995,0.044950439,0.037963218,0.031738735,0.026627713,0.022562049,0.019119515,0.016167312,0.013889315,0.011890534,0.010324198,0.008934926,0.007967883,0.00696679,0.006098495,0.005277871,0.004852237,0.004324449,0.003953296,0.003677485,0.003510636,0.003285901,0.00284324,0.002359719,0.001940895,0.001634438,0.001436943,0.001317765,0.001219018,0.001130486,0.001041954,0.000946612,0.00085127,0.000745712,0.000623129,0.000493736,0.000360938,0.00023495,0.000170254,0.000173659,0.000255381,6.13E-05,0.000265596,0.000183874,0.000146418,0.000211115,0.000160039,0.000177064,0.000132798,5.45E-05,0.000119178,0,0.000156634,0.000269001\nSRI-1052813-001.txt,Cc1c(CC(=O)N[C@H](Cc2c[nH]c3ccccc23)C(O)=O)c(=O)oc2cc(O)c(Cl)cc12,0.99665546,1,0.998837374,0.992673864,0.974677053,0.946423651,0.907149194,0.856551078,0.792957035,0.720109765,0.644586862,0.572297014,0.505788443,0.44690861,0.396437905,0.353818907,0.318096033,0.288536668,0.26418523,0.243910946,0.227395288,0.213937495,0.203107556,0.194427678,0.187706744,0.18218029,0.177704977,0.173898571,0.170362914,0.167470684,0.164780718,0.162629063,0.161485549,0.161313544,0.162028639,0.163506607,0.165309473,0.167293901,0.168607827,0.169369108,0.169942458,0.170598625,0.171834512,0.174073761,0.17760464,0.182532263,0.188576325,0.195464485,0.203120297,0.211448202,0.219710809,0.228119938,0.236516327,0.24459578,0.252293001,0.259209828,0.265863871,0.272360242,0.279011099,0.286018707,0.292867051,0.299097452,0.30414293,0.307762996,0.309185222,0.30840483,0.305710086,0.302860856,0.301180623,0.301505521,0.30264585,0.302016758,0.297328031,0.288283439,0.276494731,0.263772737,0.251918731,0.241101532,0.231730449,0.223929707,0.217769383,0.213130028,0.210389097,0.209387328,0.210277613,0.213058359,0.217465189,0.223147722,0.230262037,0.238273007,0.247230004,0.257048618,0.267166649,0.278128778,0.289041534,0.299952699,0.310953051,0.32155365,0.331846871,0.341439331,0.350464811,0.358843681,0.366669905,0.373795368,0.380325185,0.386375617,0.391819255,0.396773952,0.400959405,0.40395038,0.40640782,0.407392071,0.407114952,0.405398088,0.402217589,0.397434897,0.391599471,0.384316336,0.3763197,0.367220958,0.357504272,0.347548691,0.337016575,0.325891997,0.314276887,0.301835197,0.289390322,0.27631317,0.263232833,0.250480579,0.237780882,0.224036414,0.209065615,0.19310101,0.176836989,0.160405741,0.144426802,0.128764798,0.113819481,0.09971667,0.086566256,0.074500429,0.063723047,0.054081215,0.045695975,0.038978227,0.034877184,0.032754197,0.030194827,0.025657401,0.020530699,0.015974161,0.012968853,0.011193061,0.010102104,0.009265969,0.008485576,0.007703591,0.006921606,0.006120509,0.005295522,0.004343124,0.003342948,0.002403291,0.001632454,0.001180145,0.000922138,0.000788356,0.000681649,0.000581313,0.00049531,0.000422049,0.000340825,0.00028986,0.000285082,0.000195894,0.000136967,0.000111485,2.23E-05,0,8.12E-05\nSRI-1053304-001.txt,CCCCC(NS(=O)(=O)c1ccc(OC)cc1)C(O)=O,0.209136021,0.229985471,0.252438725,0.278948659,0.308760543,0.342629106,0.381309081,0.422630616,0.466027661,0.513670069,0.56282194,0.612445518,0.663767241,0.714617257,0.763580445,0.811600219,0.856789751,0.896979188,0.931885507,0.960848318,0.982169475,0.996132002,1,0.994433857,0.979999623,0.954433103,0.920281515,0.876318421,0.824449518,0.765052171,0.699579237,0.629681692,0.559953961,0.491877205,0.428894885,0.372535331,0.323062699,0.280835487,0.245853695,0.217853167,0.195248967,0.177173154,0.163125719,0.151502859,0.141700787,0.13206853,0.122926848,0.115653126,0.10978509,0.104917074,0.100803789,0.09700183,0.091973433,0.085869545,0.078435442,0.070539067,0.062699296,0.055680296,0.050934923,0.047953735,0.046331063,0.043859318,0.039689428,0.033406291,0.026670315,0.020132455,0.014198381,0.010471896,0.00767939,0.005698221,0.004405744,0.003443461,0.002839676,0.002377403,0.002320799,0.001924565,0.001717014,0.001490594,0.001377384,0.001084926,0.001169833,0.000792468,0.000981151,0.000632087,0.000754731,0.000632087,0.000377366,0.000575483,0.000745297,0.000707561,0.000594351,0.000500009,0.000405668,0.000301892,0.000575483,0.000452839,0.000122644,0.000584917,0.000443405,0.000292458,0.000707561,0.000500009,0.000650956,0.000179249,0.000311327,0.000613219,0.000471707,0.000754731,0.000377366,0.000584917,0.000886809,0.000424536,0.000528312,0.000141512,0.000367931,0.000330195,0.00066039,0.0003868,0.000320761,0.000245288,0.000905677,0.000632087,0.000566048,0.000716995,0.000452839,0.0007736,0.000849073,0.000641522,0.000207551,0.00054718,0.000518878,0.000764165,0.00093398,0.000584917,0.000245288,0.00066039,0.000707561,0.000500009,0.000500009,0.000471707,0.000584917,0.000556614,0.000679258,0.000679258,0.000235854,0.000235854,0.000330195,0.000443405,0.000481141,0.000481141,0.00043397,0.000396234,0.000339629,0.000311327,0.000264156,0.000245288,0.000216985,0.000198117,0.000198117,0.000188683,0.000188683,0.000179249,0.000179249,0.00016038,0.000169815,0.000283024,0.000415102,0.000688692,0.000405668,0.000292458,9.43E-05,1.89E-05,0,0.000500009,0.000452839,0.00054718,0.000235854,0.000556614,0.000349063,0.000226419,0.000528312\nSRI-1052776-001.txt,Cc1[nH]c(=O)[nH]c(=O)c1S(=O)(=O)N1CCCC(C1)C(=O)N1CCC(Cc2ccccc2)CC1,1,0.901712887,0.811990212,0.731239804,0.659053834,0.59502447,0.5362969,0.484013051,0.436500816,0.393597064,0.355831974,0.323001631,0.294942904,0.272267537,0.253955954,0.239559543,0.229445351,0.222756933,0.219575856,0.219208809,0.221900489,0.227120718,0.234747145,0.244698206,0.256443719,0.270228385,0.285766721,0.303466558,0.322675367,0.34314845,0.364828711,0.387487765,0.411382545,0.436243883,0.46201876,0.48745106,0.512854812,0.538572594,0.564323002,0.589751223,0.614914356,0.638213703,0.660554649,0.680701468,0.698968189,0.71567292,0.729690049,0.741378467,0.750473083,0.757442904,0.760424144,0.75930261,0.754608483,0.746704731,0.735542414,0.721358075,0.703597064,0.683042414,0.658735726,0.632532626,0.603409462,0.572365416,0.539763458,0.505538336,0.470061175,0.43295677,0.395175367,0.357194127,0.319323002,0.281884176,0.245999184,0.21182708,0.180379282,0.151912724,0.126977977,0.10524062,0.08680261,0.071162316,0.058140294,0.047243067,0.038527732,0.031525285,0.02572186,0.021141925,0.017361338,0.014204731,0.011745514,0.009755302,0.008283034,0.006920881,0.005880914,0.004959217,0.004314845,0.003743883,0.00317292,0.003115824,0.002814029,0.002520392,0.002414356,0.002035073,0.001725122,0.001431485,0.001060359,0.000840131,0.000758564,0.000815661,0.000893148,0.000815661,0.000607667,0.000860522,0.00074633,0.000762643,0.000799347,0.000856444,0.00064845,0.000444535,0.000591354,0.000636215,0.00045677,0.000436378,0.00040783,0.000542414,0.000656607,0.000640294,0.000562806,0.000464927,0.000440457,0.000358891,0.000371126,0.000420065,0.000379282,0.000469005,0.000440457,0.000277325,0.000411909,0.000452692,0.000464927,0.000489396,0.000411909,0.000134584,0.00026509,0.000391517,0.00024062,0.000293638,0.000305873,0.000293638,0.000338499,0.000391517,0.000387439,0.000322186,0.000244698,0.000187602,0.000142741,0.000130506,0.000126427,0.000122349,0.000110114,0.000106036,0.000106036,0.000110114,0.000114192,0.000114192,0.000122349,0.000142741,0.000142741,0.000134584,5.71E-05,0.000101958,0.000146819,9.38E-05,7.34E-05,0.000154976,0.000203915,0.000171289,0.00024062,7.75E-05,9.38E-05,0.000199837,0,0.000146819,0.000146819\nSRI-1053314-001.txt,CCC(NS(=O)(=O)c1ccc(C)cc1)C(=O)NC(C)C,0.723864637,0.764624481,0.805510127,0.846269971,0.885142785,0.921751164,0.952824255,0.976349226,0.993080891,1,0.99874198,0.986916593,0.965152849,0.934079758,0.893319914,0.844886149,0.790288087,0.727890301,0.662976475,0.594414392,0.525600704,0.458045037,0.393005409,0.334130079,0.281419046,0.235501321,0.196754309,0.164800604,0.139187319,0.119159643,0.103358913,0.09179771,0.083268336,0.07661341,0.072348723,0.069958485,0.068285319,0.067467606,0.065857341,0.064473519,0.0620078,0.061026544,0.060548497,0.060850421,0.061001384,0.060561077,0.057881495,0.054736445,0.051578815,0.048886652,0.046697698,0.04369103,0.039552145,0.036532897,0.034029438,0.032809158,0.030733426,0.0265568,0.021185055,0.016354258,0.012202793,0.009560951,0.007862624,0.005988175,0.005484967,0.004478551,0.004126305,0.003572776,0.002981507,0.002314757,0.002050572,0.002188955,0.002100893,0.001434143,0.00129576,0.001534784,0.001119638,0.000805133,0.001157378,0.000956095,0.000930935,0.000830293,0.000427727,0.000842873,0.001094477,0.00062901,0.001119638,0.00128318,0.000943515,0.000452887,0.001207699,0.000792553,0.000427727,0.000704491,0.000566109,0.000415147,0.000440307,0.000742232,0.001207699,0.00062901,0.000578689,0,0.000779972,0.000704491,0.000566109,0.000402566,0.000842873,0.000930935,0.000691911,0.000553529,0.000742232,0.000679331,0.000540949,0.000717071,0.000742232,0.000465467,0.000930935,0.000717071,0,0.000767392,0.001006416,0.00064159,0.001031576,0.001056737,0.000905774,0.001044156,0.000905774,0.001031576,0.000528368,0.000276764,0.000301925,0.000805133,0.001018996,0.000679331,0.000666751,0.000830293,0.000754812,0.000490628,0.000729652,0.000553529,0.000540949,0.000289345,0.001006416,0.000779972,0.000427727,0.000415147,0.000490628,0.00062901,0.000742232,0.000742232,0.000729652,0.000704491,0.00062901,0.000566109,0.000515788,0.000465467,0.000415147,0.000364826,0.000314505,0.000276764,0.000239024,0.000201283,0.000176123,0.000188703,0.000264184,0.000452887,0.000528368,0.000301925,0.000427727,0.000125802,0.000478048,0.000276764,0.000452887,0.000415147,0.000553529,0.000389986,0.00062901,0.000402566,0.000452887,0.000440307,0.000440307\nSRI-1052766-001.txt,O=C(CCCN1C(=O)c2ccccc2C1=O)NCC(c1cccs1)S(=O)(=O)c1ccccc1,0.984133395,0.994230325,1,0.993108444,0.974998077,0.943264867,0.901434726,0.857521091,0.81307857,0.772290176,0.738938252,0.713151012,0.690264636,0.668115496,0.643530272,0.617470575,0.592340436,0.568845039,0.54823448,0.530797241,0.515635818,0.498583224,0.474398672,0.441126882,0.402614304,0.364278021,0.330701721,0.30307139,0.281018412,0.26317409,0.248727466,0.236261764,0.224980447,0.214429956,0.20413269,0.194383542,0.184544644,0.174724979,0.164692156,0.15442534,0.144136087,0.134111278,0.124753186,0.116140344,0.108029143,0.100446829,0.093233133,0.086436136,0.080166423,0.074398351,0.069080634,0.064213273,0.059900441,0.056571659,0.054326294,0.052629048,0.050765123,0.048213645,0.045444201,0.042852655,0.040870131,0.039604008,0.038929277,0.038616753,0.038877991,0.039180899,0.039729018,0.040366887,0.041028797,0.041743596,0.042440765,0.043186014,0.043955304,0.044702157,0.045549978,0.046155794,0.04667827,0.046961946,0.046939508,0.046801677,0.046477934,0.046080468,0.045392915,0.044479383,0.043328653,0.041822127,0.040176167,0.038230505,0.03594347,0.033470523,0.0308325,0.028093507,0.02553081,0.022892787,0.020352527,0.018055876,0.016092584,0.014198208,0.012470511,0.011010462,0.009771585,0.008680155,0.007739377,0.006918801,0.006144703,0.00559979,0.005000385,0.004500346,0.004191028,0.003790356,0.003453791,0.003149281,0.00299382,0.002662064,0.002482563,0.002309473,0.002094712,0.001913609,0.001793407,0.00162192,0.001421584,0.001315806,0.001093033,0.000961612,0.000772495,0.000621843,0.000557735,0.000408685,0.000341372,0.000266046,0.000259635,0.000251622,0.000253225,0.000195528,0.000187514,0.000169885,0.000155461,0.000171488,0.000161871,8.65E-05,0.000160269,0.000141036,0.000126612,0.000150653,0.000102572,0.000102572,0.000113791,0.000134626,0.000142639,0.000123407,9.46E-05,7.21E-05,5.29E-05,4.49E-05,4.17E-05,4.49E-05,4.65E-05,4.65E-05,4.81E-05,4.97E-05,5.13E-05,5.45E-05,5.13E-05,4.65E-05,4.81E-05,4.33E-05,3.05E-05,6.25E-05,2.4E-05,4.17E-05,6.89E-05,0.000104175,6.41E-05,3.53E-05,7.05E-05,8.01E-06,1.92E-05,0,2.56E-05,9.3E-05,6.89E-05\nSRI-1053062-001.txt,OC(=O)C(Cc1ccccc1)NS(=O)(=O)c1c(Cl)cccc1Cl,1,0.986812607,0.986812607,0.973625214,0.947250429,0.894500857,0.828563893,0.7415271,0.658446525,0.584597125,0.50151655,0.4830542,0.480416722,0.471185547,0.451404457,0.436898325,0.417117236,0.393379929,0.378873797,0.365686404,0.352499011,0.344586575,0.337992879,0.331399182,0.330080443,0.328761704,0.328761704,0.331399182,0.330080443,0.328761704,0.328497956,0.32493736,0.322563629,0.328497956,0.329157326,0.326651721,0.332190426,0.329684821,0.323486747,0.317420546,0.31385995,0.313728076,0.312013715,0.309112488,0.301727548,0.300145061,0.294870104,0.291177634,0.28867203,0.282342081,0.277462746,0.271264671,0.260451009,0.260187261,0.25412106,0.248318607,0.244098642,0.236845576,0.22827377,0.227218779,0.228801266,0.223921931,0.220625082,0.218251352,0.215745747,0.212844521,0.204668337,0.201503363,0.195437162,0.190162205,0.193986549,0.192404062,0.174601081,0.176051695,0.172622972,0.155611236,0.167216141,0.167875511,0.16312805,0.153105631,0.149413161,0.14703943,0.141764473,0.137808255,0.134115785,0.13358829,0.129763946,0.121455888,0.116049057,0.104707899,0.103784782,0.097718581,0.093630489,0.087828036,0.087828036,0.089014902,0.083739945,0.074376896,0.069233812,0.065013847,0.062244494,0.049057101,0.043122775,0.039562179,0.034682843,0.022286694,0.016879863,0.010681788,0.010681788,0.012264275,0.009626797,0.009231175,0.003824344,0.006461822,0.008176184,0.002505605,0.006198075,0.00672557,0.007912436,0.004088092,0.004747461,0.005406831,0.004219966,0.005011209,0.008967427,0.009494923,0.008308057,0.005406831,0.007780562,0.0030331,0.005274957,0.007253066,0.009231175,0.000395622,0.003164974,0.005934327,0.005143083,0.005538705,0.002505605,0.00672557,0.005802453,0.002241857,0.002373731,0.002505605,0.001846235,0.001450613,0.002373731,0.003428722,0.005538705,0.005143083,0.003956218,0.0030331,0.001450613,0.001054991,0.000791244,0.000791244,0.000791244,0.000395622,0.000263748,0,0.000131874,0.00065937,0.001318739,0.001450613,0.001054991,0.001318739,0.004219966,0.007912436,0.006066201,0.002241857,0.001318739,0.001450613,0.005802453,0.002241857,0.006198075,0.004747461,0.001714361,0.003428722,0.001054991,0.004088092,0.001978109\nSRI-1053072-001.txt,CCCCCNC(=O)C[C@@H]1NC(=O)N(CCc2c[nH]c3ccccc23)C1=O,0.99828817,1,0.991697622,0.970642108,0.936148724,0.885649725,0.818203605,0.736035743,0.644666792,0.549146653,0.458205659,0.377450057,0.308334903,0.250774603,0.205839054,0.170660938,0.143827995,0.123457213,0.107622781,0.095725559,0.0862249,0.078821234,0.073257785,0.068593047,0.065169386,0.06260164,0.060804218,0.059563141,0.059135183,0.059135183,0.059558861,0.060722906,0.062105209,0.063898352,0.066205043,0.068978208,0.072243525,0.075757057,0.079574439,0.083742746,0.087919612,0.092233425,0.096958077,0.101507267,0.106266155,0.110948012,0.115642707,0.120393036,0.124989301,0.129285996,0.133407227,0.137293082,0.140943561,0.14458548,0.147230258,0.149280175,0.150790866,0.152096136,0.153350052,0.155237345,0.157573994,0.159388534,0.160531181,0.160330041,0.158738039,0.154843624,0.149181745,0.143143263,0.138461407,0.136659705,0.136214629,0.134545595,0.129281716,0.119032131,0.105230498,0.090602907,0.077173597,0.065391924,0.055660167,0.047135252,0.039838574,0.03372734,0.028313676,0.023884314,0.019929986,0.016793057,0.014041289,0.011777394,0.009945735,0.008285259,0.00726672,0.006368009,0.005636202,0.005079857,0.004583426,0.004198264,0.003962888,0.003676156,0.003273876,0.003059897,0.002940069,0.002439358,0.002165466,0.002161186,0.001985723,0.001977164,0.001998562,0.002186863,0.001874454,0.001844497,0.001985723,0.001865895,0.001476454,0.001527809,0.001467895,0.001437938,0.001527809,0.001343787,0.001425099,0.001378024,0.001343787,0.001292432,0.001198281,0.00101426,0.000962905,0.000723248,0.000988582,0.000740367,0.000821679,0.000714689,0.000419398,0.000539227,0.000350925,0.000624818,0.00080456,0.000727528,0.000637657,0.000569184,0.000569184,0.000427958,0.000564904,0.000560624,0.000659055,0.001099851,0.000783162,0.000637657,0.000624818,0.0006077,0.000586302,0.000586302,0.000586302,0.000586302,0.000586302,0.000582022,0.000573463,0.000569184,0.000556345,0.000543506,0.000522108,0.00050071,0.000487872,0.000466474,0.000445076,0.000449355,0.000449355,0.000427958,0.000432237,0.000432237,0.000513549,0.000355205,0.000475033,0.000432237,0.000445076,0.000419398,0.000141226,0.000599141,0.000338087,0,0.000162624,1.28E-05,9.84E-05\nSRI-0000050.txt,CC(=O)N\\N=C\\C1=C(C=CC=C1)[N+]([O-])=O,0.671018425,0.650829856,0.632412215,0.616544709,0.602589804,0.590193314,0.58084282,0.573475763,0.568588004,0.566321218,0.566321218,0.569792235,0.57524669,0.583392955,0.594231028,0.606131658,0.61966154,0.633687283,0.649413115,0.666201503,0.683698262,0.701265859,0.719400152,0.737746956,0.756447945,0.775715632,0.794274947,0.812310068,0.830904802,0.849485369,0.866252506,0.882920471,0.89940426,0.914492559,0.928702477,0.941913593,0.953778804,0.964383115,0.974279056,0.98236865,0.988694402,0.99344757,0.997449865,0.999050783,1,0.999135788,0.99659982,0.99402135,0.989813628,0.983905815,0.977934249,0.970822206,0.963023043,0.954430505,0.946050479,0.936777904,0.927696591,0.918799453,0.909314368,0.900020543,0.890818806,0.880788275,0.870219382,0.859034207,0.847126494,0.833993299,0.818678322,0.80295249,0.785356558,0.766797243,0.746870772,0.725598396,0.703582231,0.681643987,0.659748245,0.637611657,0.614993377,0.592623026,0.571237311,0.549539913,0.527686673,0.506102615,0.485262345,0.464556666,0.444495605,0.426269223,0.408637874,0.392749116,0.378107092,0.365618514,0.354667101,0.345741629,0.337807876,0.331545878,0.326204762,0.321947453,0.318667696,0.315487111,0.313284078,0.310953538,0.30916136,0.307893376,0.3061437,0.304514447,0.303218129,0.301454285,0.299584186,0.297962017,0.295822737,0.292989254,0.290361198,0.28761272,0.284425051,0.280713188,0.277808867,0.273997832,0.269839696,0.265313206,0.260588373,0.255679363,0.250805772,0.245429237,0.240300633,0.234846177,0.228874611,0.222959715,0.216811056,0.210584477,0.204641246,0.19855634,0.193002713,0.187236575,0.18122959,0.174726746,0.168691427,0.162783614,0.156578286,0.150762561,0.144713074,0.138507746,0.132947035,0.127343822,0.12151393,0.115967387,0.110463345,0.105384327,0.102062067,0.100000708,0.09694763,0.090926478,0.083828603,0.077368261,0.072310493,0.068832392,0.066168918,0.063909215,0.061599926,0.059106461,0.056336731,0.053347406,0.05001098,0.046107857,0.041616786,0.03660152,0.031402078,0.02703143,0.023709171,0.021045697,0.018941836,0.016823807,0.014974959,0.013062358,0.011305598,0.009492169,0.007742493,0.006240747,0.004802754,0.003584356,0.002146364,0.000913798,0\nSRI-0000044.txt,[O-][N+](=O)C1=CN=C(C=C1)N1CCNC1=O,0.64302062,0.659030391,0.673334654,0.685933408,0.695946392,0.702768425,0.706344491,0.706399507,0.702218261,0.693910785,0.680651834,0.663101604,0.641370128,0.615732488,0.586023635,0.55389406,0.520279043,0.484793468,0.449693009,0.414867631,0.381692744,0.350003301,0.320349464,0.292511168,0.267093594,0.243711626,0.222447789,0.202812438,0.185251205,0.169164411,0.154265971,0.140918994,0.128870403,0.117878128,0.107947668,0.099414626,0.091756343,0.085060848,0.079399661,0.074778284,0.070762087,0.067763694,0.065656566,0.064534231,0.064000572,0.064231641,0.064869831,0.066553333,0.068875025,0.071499307,0.075080874,0.0791961,0.083877996,0.088922999,0.094661209,0.100558967,0.107072908,0.113850928,0.121052574,0.128578816,0.136605709,0.144968201,0.153710306,0.163046588,0.172597434,0.18281948,0.193195572,0.204501441,0.216197927,0.228730662,0.241967606,0.255446623,0.270262538,0.285590106,0.301605378,0.318484408,0.335726547,0.353865452,0.372527013,0.391821263,0.411858234,0.432324333,0.453093022,0.474472393,0.496583482,0.518463502,0.541229286,0.563411897,0.586518783,0.609323078,0.63251799,0.654706102,0.677537906,0.700342202,0.72198015,0.743750138,0.764975463,0.785760657,0.805984683,0.825664048,0.844254088,0.862409498,0.879420567,0.895364319,0.910818424,0.924644044,0.937908497,0.950226668,0.960707291,0.970038071,0.978521599,0.985123567,0.990663718,0.995252085,0.998244977,0.999944984,1,0.999015207,0.99671002,0.992842367,0.987588301,0.981085363,0.973416078,0.964189829,0.953109527,0.939922097,0.926294536,0.91127506,0.895809951,0.881379151,0.866596246,0.851010101,0.833371845,0.814391189,0.794431241,0.774493299,0.75396118,0.733412557,0.71178011,0.689509474,0.667409388,0.644076935,0.620694967,0.597390022,0.573754979,0.55093968,0.535083955,0.525819194,0.51110781,0.48073876,0.44627649,0.415071191,0.391012522,0.373621839,0.360170331,0.348127242,0.335935609,0.322500605,0.30775071,0.29150987,0.273293942,0.252981889,0.229594419,0.203296582,0.175964437,0.152813538,0.13553839,0.121025065,0.107991682,0.096025616,0.084472173,0.073408376,0.063103805,0.053294382,0.044178165,0.035727647,0.027299135,0.019706873,0.012758302,0.006260866,0\nSRI-1053000-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)Cn1nnc2ccccc2c1=O,0.994930952,1,0.998465007,0.989023012,0.970388907,0.940456536,0.900118337,0.85083791,0.794221642,0.734053471,0.675366747,0.620053439,0.567845815,0.518690329,0.471873031,0.426555029,0.383610911,0.343486898,0.307146822,0.275233239,0.248192367,0.225792173,0.207639983,0.192807664,0.181295213,0.171924614,0.16421395,0.157699152,0.152228507,0.147677073,0.14391277,0.140994497,0.139056122,0.137842406,0.137299804,0.137046351,0.137235548,0.1376425,0.138247573,0.139347057,0.140971294,0.143507603,0.146848891,0.151018361,0.156105258,0.16183828,0.16802466,0.174659044,0.181377317,0.18846506,0.195313629,0.202165769,0.208735897,0.21482054,0.220185877,0.225185315,0.229479726,0.233945486,0.238429095,0.242691379,0.246689501,0.24980411,0.251851363,0.252467145,0.251053523,0.247897862,0.243232196,0.238393397,0.234852203,0.232417632,0.230157979,0.225883201,0.218106496,0.206788597,0.193783991,0.180675861,0.16881179,0.158480928,0.149918877,0.14239027,0.13598792,0.130308444,0.124893131,0.119490311,0.113896509,0.108163488,0.102455454,0.09703657,0.092022854,0.087758785,0.084285416,0.081758031,0.080298003,0.079368082,0.078580952,0.077144127,0.074529284,0.070572213,0.065142621,0.058638532,0.051750696,0.044671877,0.037953604,0.03188681,0.026451863,0.021857592,0.018062945,0.014851953,0.012235325,0.010195212,0.008469237,0.007002069,0.005961486,0.005004792,0.004167686,0.003464444,0.002934336,0.002500611,0.002050823,0.001759888,0.00143861,0.001270832,0.001147675,0.000985252,0.000829967,0.000633631,0.000622922,0.000606858,0.000506905,0.000398027,0.000367684,0.000374824,0.000408737,0.000360545,0.000328417,0.000367684,0.000339126,0.000371254,0.000278441,0.000271301,0.000264162,0.000314138,0.000333772,0.000353405,0.000340911,0.000342696,0.000351621,0.00035876,0.000369469,0.000374824,0.000383748,0.000394458,0.000392673,0.000389103,0.000385533,0.000378394,0.000373039,0.000364115,0.000351621,0.000340911,0.000330202,0.000317708,0.000301644,0.00028915,0.00028558,0.000298074,0.00029272,0.000271301,0.0002124,0.000242743,0.000201691,0.000108877,0.000160639,0.000167778,0.00013922,0.000233819,8.21E-05,1.96E-05,6.78E-05,5.53E-05,0\nSRI-1053010-001.txt,Cn1c2ccc(cc2n(C)c1=O)S(=O)(=O)NC(Cc1ccccc1)C(O)=O,0.993897867,1,0.994433477,0.975782756,0.942364491,0.893643069,0.831722676,0.759032688,0.680049276,0.597316592,0.515540354,0.438488966,0.368151838,0.305944511,0.25322514,0.209955468,0.175599884,0.149144554,0.129671288,0.115745417,0.106525266,0.100939614,0.098032014,0.097190341,0.097955498,0.100155327,0.103292474,0.107366939,0.112118569,0.117660224,0.123789138,0.13059139,0.137783874,0.145364674,0.153000949,0.160568359,0.167898571,0.174643436,0.18077235,0.185805176,0.189500888,0.191408043,0.191733235,0.19048029,0.187402442,0.182614468,0.17609341,0.168108989,0.159070563,0.14946592,0.140100389,0.131243687,0.123423775,0.117071053,0.112447587,0.109767622,0.108847519,0.109803967,0.112418893,0.116548832,0.12201971,0.128707189,0.136358767,0.144844367,0.153806277,0.163439614,0.173203027,0.18280767,0.191962783,0.200318306,0.20750505,0.213086876,0.216788327,0.218967114,0.219755226,0.219219616,0.217628087,0.214181052,0.208155434,0.198393934,0.184292076,0.166316607,0.145357023,0.122884339,0.100625899,0.08017897,0.062046644,0.046994078,0.034898846,0.02555627,0.018555076,0.013374958,0.009621859,0.006982065,0.005097864,0.003885089,0.002911425,0.002184525,0.001736908,0.001404065,0.001203211,0.001042527,0.000881844,0.000759419,0.000692468,0.000564304,0.000583433,0.000571955,0.00050883,0.000445704,0.000373014,0.00035006,0.000311802,0.000237199,0.000306063,0.000185551,0.000160683,9.56E-05,0.000189377,0.000219983,0.000126251,4.97E-05,0.000118599,0.00020468,0.000101383,0.000168335,0.000151119,0.000154944,7.84E-05,5.93E-05,0.000109035,9.37E-05,0.000130077,9.18E-05,5.93E-05,0.000114774,9.76E-05,7.08E-05,3.44E-05,6.7E-05,2.3E-05,5.93E-05,5.93E-05,6.89E-05,5.16E-05,2.49E-05,4.59E-05,4.59E-05,4.02E-05,4.97E-05,5.36E-05,4.78E-05,4.21E-05,3.06E-05,1.91E-05,9.56E-06,9.56E-06,7.65E-06,3.83E-06,1.91E-06,5.74E-06,1.34E-05,1.91E-05,2.68E-05,2.49E-05,3.83E-05,3.44E-05,4.21E-05,4.59E-05,8.03E-05,2.49E-05,0.000120512,7.08E-05,1.53E-05,0.000110948,2.68E-05,0,3.44E-05,5.74E-05,4.78E-05,8.42E-05\nSRI-1053168-001.txt,OC(=O)[C@H]1CC[C@H](CNC(=O)Cn2nnc3ccccc3c2=O)CC1,1,0.995517043,0.991086827,0.984283281,0.975000923,0.961710274,0.944516816,0.922418476,0.896364586,0.866988033,0.835818298,0.803066342,0.7665698,0.724588227,0.676646959,0.622429552,0.565416889,0.508404226,0.455347113,0.406878438,0.365635235,0.33214491,0.304719762,0.282621422,0.265006039,0.250185911,0.23752815,0.226241647,0.215851735,0.206284578,0.197635108,0.190140659,0.183785409,0.178157979,0.173332208,0.168691029,0.163765051,0.159176613,0.154451049,0.150764476,0.147784628,0.146270971,0.146471386,0.147673873,0.15062735,0.154904619,0.160241974,0.166053996,0.172862816,0.179940614,0.187466707,0.195135201,0.202845886,0.210519654,0.218061569,0.225392522,0.23280786,0.23970634,0.24603522,0.252179508,0.257659264,0.261741391,0.265069328,0.267284436,0.268713708,0.268750626,0.268117738,0.267389917,0.265596734,0.263133745,0.259900742,0.256077044,0.251398946,0.245987754,0.240745331,0.235924834,0.231120159,0.227175157,0.223757562,0.220777714,0.218098488,0.214860211,0.21087829,0.205177024,0.198183611,0.19021977,0.181417353,0.17281535,0.164867331,0.157942481,0.152715881,0.149293011,0.147716065,0.147019889,0.146212956,0.143597019,0.138122538,0.129267379,0.117680254,0.103999325,0.090007225,0.075988756,0.063373188,0.051981203,0.042435142,0.034597879,0.028295369,0.023016028,0.018759856,0.015711445,0.013106056,0.010679985,0.008865706,0.007336227,0.00647128,0.005463933,0.00440912,0.003855343,0.003201359,0.002821626,0.002457715,0.002209834,0.001666605,0.001397628,0.001255228,0.00110228,0.000954606,0.000864947,0.000738369,0.000669806,0.000738369,0.000474666,0.00059597,0.000411377,0.000569599,0.000653984,0.000617066,0.000358637,0.000443022,0.000348088,0.000374459,0.000232059,0.000379733,0.000126578,0.000253155,0.000332266,0.000353362,0.000348088,0.000295348,0.000258429,0.000210963,0.000158222,0.000110755,7.38E-05,4.75E-05,2.11E-05,1.05E-05,5.27E-06,0,0,1.05E-05,1.58E-05,2.11E-05,5.8E-05,0.000131852,0.000258429,0.000385007,0.000295348,0.000290074,6.86E-05,7.91E-05,0.0002848,0.000363911,0.000485214,0.000152948,8.44E-05,0.00016877,0.000105481,0.000216237,0.000421925,0.0002848\nSRI-1053366-001.txt,CSCCC(NC(=O)c1ccc(C)cc1)C(O)=O,0.620449078,0.643303929,0.669125902,0.69510826,0.723175621,0.750601443,0.77818765,0.805613472,0.831034483,0.855813953,0.879230152,0.89935846,0.921732157,0.942742582,0.960224539,0.975300722,0.986688051,0.995348837,0.999438653,1,0.996471532,0.989655172,0.978348035,0.962630313,0.943223737,0.919406576,0.891098637,0.859262229,0.823576584,0.786238974,0.745621492,0.703247795,0.659061748,0.613488372,0.568059342,0.52244587,0.477939054,0.434827586,0.393175621,0.353600642,0.317530072,0.284434643,0.254186047,0.227714515,0.203793103,0.182526063,0.164001604,0.147834804,0.133801123,0.121427426,0.110521251,0.101996792,0.093704892,0.085966319,0.078315958,0.07137931,0.065092221,0.059109864,0.053969527,0.049085806,0.044643144,0.040128308,0.035725742,0.031419407,0.027089014,0.022910986,0.018765036,0.015765838,0.013215718,0.011234964,0.009991981,0.008893344,0.007722534,0.006928629,0.00606255,0.005028067,0.004779471,0.003656776,0.002959102,0.002518043,0.002566159,0.002798717,0.00244587,0.002598236,0.002694467,0.002726544,0.002854852,0.002846832,0.002999198,0.002838813,0.002782678,0.003031275,0.002542101,0.002365678,0.00244587,0.002622294,0.003007217,0.002702486,0.00266239,0.002477947,0.002485966,0.002822775,0.00265437,0.002806736,0.002437851,0.002253408,0.002574178,0.001740176,0.001884523,0.00170008,0.00181235,0.001627907,0.001724138,0.001395349,0.001002406,0.001090617,0.001082598,0.000842021,0.000561347,0.000577386,0.000809944,0.000970329,0.000769848,0.00106656,0.000433039,0.000545309,0.00052927,0.000561347,0.000360866,0.000392943,0.000384924,0.00042502,0.000513232,0.000737771,0.000825982,0.00074579,0.000713713,0.000473136,0.000553328,0.000272654,0.000232558,0.000481155,0.000272654,0.000489174,0.000272654,0.000232558,0.000296712,0.000304731,0.000296712,0.000256616,0.0002085,0.000200481,0.000192462,0.000176423,0.000176423,0.000160385,0.000136327,0.000136327,0.000136327,0.000152366,0.000152366,0.000152366,0.000176423,0.000240577,0.000328789,0.000368885,0.000232558,0.000144346,0.000344828,0.000513232,4.81E-05,0.000288693,0.000288693,0.000545309,0.000601443,0.000256616,0.00032077,0.000168404,0.000152366,0.000168404,0\nSRI-1053376-001.txt,COc1ccc(cc1)S(=O)(=O)N[C@@H](C)C(O)=O,0.610602319,0.654678603,0.700727173,0.747547506,0.794024834,0.839730397,0.882949166,0.920937093,0.952665157,0.978047609,0.993997393,1,0.996141181,0.98147767,0.955409206,0.919479317,0.873259244,0.819064279,0.758180696,0.691294505,0.621835769,0.550061741,0.478201962,0.407971462,0.341428277,0.28035604,0.228201962,0.183585443,0.14718392,0.118817315,0.097113604,0.081824106,0.0716111,0.064725252,0.061046512,0.059099952,0.058636894,0.058774096,0.059751664,0.061552446,0.063679083,0.065977224,0.068584071,0.070847911,0.073403307,0.076241682,0.079097208,0.082098511,0.084954037,0.087946765,0.091110997,0.094180901,0.097413734,0.10028641,0.103562118,0.106580572,0.108758661,0.110499417,0.112060095,0.113457845,0.115035673,0.116673527,0.117565343,0.117633944,0.115978939,0.114375386,0.111691363,0.108295603,0.104393908,0.100355011,0.095672978,0.090021952,0.084508129,0.07920011,0.073566234,0.068163888,0.062504288,0.057342046,0.052282706,0.047309117,0.04298724,0.038288057,0.034463538,0.030158812,0.026342869,0.022869932,0.019534198,0.016807299,0.014106126,0.012656925,0.011267751,0.009981478,0.009141113,0.008712355,0.008489401,0.008197846,0.007417507,0.006774371,0.006208411,0.0056253,0.004862112,0.003935995,0.003035604,0.002718323,0.002212389,0.00168073,0.001835083,0.001080469,0.001046169,0.001166221,0.000771764,0.000197229,0.000248679,0.000102902,0.000574535,0.000591686,0.00058311,0.000428758,0.00054881,0.000728888,0.000677437,0.000205804,0.000197229,0.000240104,0.00028298,0.000428758,0.000806064,0.000763189,0.000343006,0.000145778,0.00026583,0.000668862,0.00083179,0.000677437,0.000162928,0.000171503,0.000257255,0.000145778,0.000317281,0.000240104,0.000240104,0.000385882,0.000274405,0.000162928,8.58E-06,0.000102902,0.000137202,8.58E-05,0,0,1.72E-05,6.86E-05,9.43E-05,0.000111477,0.000120052,0.000111477,9.43E-05,7.72E-05,5.15E-05,4.29E-05,2.57E-05,1.72E-05,1.72E-05,4.29E-05,0.000120052,0.000137202,6E-05,0.000343006,0.00026583,0.000180078,0,0.000180078,1.72E-05,0.000325856,0.000600261,0.000343006,0.000128627,0.000343006,0.000497359,0.000171503,7.72E-05\nSRI-1032554-002.txt,CC(=O)NC1=CC=C(C=C1)S(=O)(=O)N1CCCCC1C(O)=O,0.291235248,0.247730876,0.213457919,0.186761089,0.167534278,0.15465274,0.147012947,0.143447711,0.143129386,0.145484989,0.150047643,0.156477801,0.164520805,0.174155432,0.185275574,0.197860009,0.211887517,0.22714588,0.244165639,0.262989239,0.283213466,0.305114204,0.328818782,0.3543272,0.381202291,0.409707205,0.439627603,0.471109913,0.503449578,0.536988267,0.57137582,0.605977713,0.640428932,0.675319439,0.709271949,0.742180354,0.773728452,0.804746009,0.833792075,0.860524981,0.885664142,0.908833934,0.930246574,0.948545999,0.964481332,0.979268575,0.989811488,0.996727622,0.999983023,1,0.995286673,0.987368877,0.975779736,0.960166972,0.941381572,0.921764283,0.899785025,0.874911134,0.847921446,0.817317711,0.783989118,0.747543064,0.708578001,0.667032386,0.622689759,0.573962739,0.520566957,0.46296929,0.402510945,0.341197368,0.282154506,0.227188323,0.178943035,0.13829934,0.105057755,0.078658028,0.058363769,0.042878334,0.031541731,0.023231335,0.017323229,0.012964303,0.009946585,0.00779471,0.006279485,0.005067729,0.004276162,0.003609802,0.003125948,0.00270576,0.002389557,0.002238884,0.002073355,0.001937536,0.001731686,0.00177413,0.001684999,0.001481271,0.001311498,0.001211756,0.001165068,0.000976196,0.000829766,0.000702436,0.000596328,0.000468998,0.000292859,0.000267393,0.000316203,0.000246171,0.000261026,0.000282248,0.000188873,0.000252538,0.000282248,0.000275881,0.000271637,0.000252538,0.000248293,0.000199483,0.000227072,0.00033318,0.000292859,0.00025466,0.000335302,0.00031408,0.000152796,0.000275881,0.000352279,0.000244049,0.000216461,0.000190995,0.00030347,0.000280126,0.000220705,0.000273759,0.000275881,0.000159162,0.000190995,0.000237682,0.000229194,0.000171895,5.73E-05,8.91E-05,0.000123086,0.000171895,0.000199483,0.000188873,0.000148552,0.000101864,7.85E-05,6.37E-05,4.67E-05,3.4E-05,2.76E-05,3.4E-05,5.09E-05,6.37E-05,7.22E-05,7.85E-05,8.49E-05,8.49E-05,8.06E-05,6.15E-05,3.82E-05,4.24E-05,7.43E-05,0.000110353,8.7E-05,4.24E-06,6.37E-06,8.91E-05,0.000120963,0.000106108,0.000193117,8.28E-05,0,0.000114597,9.76E-05,0.000101864,9.97E-05\nSRI-0000520.txt,COC1=CC=C(C=C1)N1CCNCC1,0.536616082,0.56117373,0.586990744,0.614696808,0.65184812,0.685851017,0.71922423,0.758264593,0.794786223,0.830678169,0.861532649,0.893016813,0.921100686,0.946476922,0.96876771,0.983187457,0.992003022,0.996410805,1,0.992317864,0.978968579,0.960329954,0.936339021,0.908695926,0.8735596,0.834078459,0.792204521,0.746363579,0.701970909,0.653548265,0.605629368,0.56079592,0.514829041,0.467602796,0.425351048,0.385932876,0.350544676,0.315282413,0.283924186,0.254706882,0.231975316,0.20962156,0.185819533,0.168440275,0.154398338,0.142749197,0.131414898,0.126062591,0.120647314,0.113783767,0.108998174,0.107801776,0.106920219,0.107172092,0.106794282,0.109627857,0.112587369,0.116050627,0.119010138,0.121906681,0.126188527,0.12908507,0.134878156,0.136137523,0.140482337,0.144953089,0.147975568,0.149612745,0.153768654,0.154650211,0.155909577,0.155153958,0.154587243,0.154902084,0.154776148,0.152950066,0.147282917,0.143819659,0.139726717,0.138530319,0.132611297,0.124362446,0.122158554,0.116869215,0.109124111,0.10314212,0.096593414,0.091178137,0.084440526,0.080347585,0.072917323,0.06964297,0.064605503,0.057238209,0.051256218,0.047667023,0.045715005,0.039733014,0.035451168,0.033813992,0.03085448,0.027202317,0.023927964,0.021472199,0.021787041,0.022290788,0.019520181,0.016497702,0.015742082,0.010074932,0.010641647,0.012530697,0.008563692,0.009004471,0.008437756,0.009948996,0.009004471,0.007304326,0.009508217,0.006107928,0.009760091,0.007115421,0.005604181,0.007052453,0.007430263,0.005478244,0.007304326,0.007871041,0.005981991,0.006800579,0.007115421,0.008374787,0.006485738,0.004344815,0.005415276,0.004281846,0.004659656,0.005604181,0.005226371,0.006044959,0.005100434,0.000503747,0.00226686,0.003148416,0.002581701,0.003652163,0.004596688,0.004092941,0.002833575,0.001385303,0.001196398,0.000881557,0.000566715,0.000440778,0.000440778,0.000629683,0.000881557,0.001070462,0.001322335,0.001637177,0.001826081,0.002329828,0.002770606,0.002833575,0.00226686,0.001637177,0.002581701,0.002896543,0.000881557,0.002896543,0.00415591,0.004344815,0.00151124,0.003526226,0.000944525,0.002140923,0.004407783,0.00302248,0.001259367,0.002455765,0\nSRI-1052919-001.txt,COc1ccc2[nH]c(cc2c1OC)C(=O)NCC(=O)NCCc1c[nH]c2ccccc12,1,0.927808963,0.853386399,0.781264378,0.715330818,0.656068832,0.604536671,0.561171436,0.524730836,0.494064599,0.467631361,0.445316095,0.425554431,0.40809331,0.392564645,0.378140241,0.365418239,0.354421644,0.344897396,0.336983528,0.330956106,0.326286003,0.323456336,0.321776939,0.321546885,0.322467102,0.324215515,0.326387227,0.329037453,0.331499034,0.333532714,0.334947548,0.335787246,0.335612405,0.33427809,0.332214503,0.329258305,0.326364222,0.323316003,0.320081439,0.316968805,0.313817061,0.310980491,0.308817981,0.307143186,0.306446121,0.306522039,0.307295022,0.308799577,0.311203644,0.313469679,0.315443545,0.316915892,0.318029355,0.319375173,0.320934941,0.323463237,0.325929419,0.328690071,0.330569614,0.331036625,0.329384835,0.324979295,0.318084568,0.310034968,0.303068924,0.298385019,0.29525628,0.290781724,0.280781264,0.264440508,0.242718782,0.218979479,0.195419619,0.173203276,0.152562805,0.133254348,0.115367627,0.099208613,0.08448974,0.071378945,0.060016564,0.050023005,0.041430478,0.034169964,0.028133339,0.023214779,0.019039293,0.015590779,0.0127105,0.010421459,0.008546517,0.00712018,0.005820374,0.004881752,0.003991442,0.003331186,0.002804362,0.002367259,0.002031379,0.001681697,0.001433238,0.001348118,0.001203184,0.001074354,0.000798288,0.000687862,0.000812092,0.000825895,0.000772982,0.000621147,0.000519923,0.0004256,0.000556731,0.000503819,0.00054983,0.000432502,0.000368087,0.000388792,0.00046471,0.000397994,0.000416398,0.000432502,0.000384191,0.000460109,0.000434803,0.000384191,0.000437103,0.000324377,0.00046701,0.000292169,0.000345081,0.000294469,0.000227754,0.000515322,0.000372688,0.0004256,0.000305972,0.000280666,0.000407196,0.000333579,0.000234655,0.000234655,0.00029677,0.000273765,0.000273765,0.000243858,0.000200147,0.000149535,0.000101224,6.9E-05,4.6E-05,4.14E-05,5.29E-05,7.36E-05,9.2E-05,0.000105825,0.000119628,0.000131131,0.000140333,0.000149535,0.000149535,0.000154136,0.000147235,0.000140333,0.000131131,7.36E-05,4.6E-06,0,0.000105825,0.000161038,9.89E-05,0.000190945,0.000110426,0.000195546,0.000186344,0.000204748,0.000140333,0.000124229,0.000165639,0.000133431\nSRI-1052871-001.txt,O=C(Cn1nnc2ccccc2c1=O)N1CCN(CC1)C(=O)C1COc2ccccc2O1,1,0.998023684,0.992794318,0.980499186,0.967801795,0.947513952,0.922713814,0.896042297,0.865663001,0.833622202,0.798870527,0.762982033,0.724242748,0.679924305,0.630201602,0.57566928,0.519562902,0.464978112,0.414415911,0.369222993,0.330850988,0.298757719,0.272575909,0.250993842,0.233311938,0.218428357,0.205643518,0.19429282,0.183816598,0.1746346,0.166570183,0.159679312,0.153972482,0.149327266,0.145411362,0.142035885,0.138950734,0.136218871,0.134072907,0.132845143,0.132694733,0.133894514,0.136645615,0.140750405,0.146301579,0.15309101,0.160828374,0.169406983,0.178718403,0.188255438,0.198070556,0.207794729,0.217681554,0.227409225,0.236701407,0.245684024,0.253968809,0.260784475,0.266535029,0.270569861,0.273362937,0.275347998,0.276582758,0.276705184,0.275185345,0.270673049,0.263355434,0.253953069,0.243690219,0.233539302,0.224187656,0.21592036,0.208308921,0.201792326,0.195763689,0.190565803,0.185939826,0.182163838,0.1788898,0.176360816,0.174004978,0.171075483,0.16760906,0.162897384,0.157167817,0.150598754,0.143692142,0.136998903,0.130735907,0.125545017,0.121644854,0.119201568,0.118132959,0.117800658,0.117027621,0.114652544,0.109883153,0.102409881,0.092755666,0.081751261,0.070416303,0.059581546,0.049617767,0.040963952,0.033730287,0.027638688,0.02276261,0.018691049,0.015525446,0.012886278,0.010784038,0.009080558,0.007714627,0.006588302,0.005629876,0.0047554,0.004097794,0.00348741,0.002999453,0.002675896,0.002354089,0.001927345,0.001713973,0.00148486,0.001297722,0.001226015,0.001103589,0.000926945,0.00078353,0.000790526,0.000743305,0.000661104,0.000526435,0.00055092,0.000386518,0.000412753,0.000313062,0.00036728,0.000281581,0.000281581,0.000222117,0.000188887,0.000199381,0.000230862,0.000155657,0.000122427,0.000134669,0.000141665,0.00015041,0.000152159,0.000146912,0.000139916,0.000124176,0.000111933,9.79E-05,8.57E-05,7.7E-05,6.82E-05,6.12E-05,5.77E-05,5.42E-05,5.07E-05,4.9E-05,4.9E-05,4.02E-05,3.85E-05,3.15E-05,7.87E-05,7.52E-05,9.79E-05,6.12E-05,3.67E-05,8.74E-06,7.17E-05,9.27E-05,6.47E-05,4.72E-05,4.72E-05,0.000164401,7E-05,0\nSRI-0000285.txt,CSC(=S)NNC(=O)C1=CC(Cl)=C(Cl)C=C1,0.865996944,0.809796449,0.765889812,0.730764502,0.70442052,0.6851016,0.672807742,0.666660812,0.667538945,0.673685874,0.683345334,0.696780765,0.713289661,0.733047647,0.7545619,0.777217724,0.800049175,0.824110012,0.84790741,0.869860728,0.89190186,0.913503925,0.932208153,0.949858621,0.96592845,0.979012628,0.98955022,0.996663096,1,0.998770614,0.992272432,0.981822652,0.964892253,0.943255062,0.916287606,0.885570523,0.851639474,0.817673299,0.783399779,0.750645428,0.721131386,0.695832382,0.674950386,0.659354748,0.649949946,0.645383656,0.645418782,0.649765539,0.65903862,0.671771545,0.687454996,0.705263528,0.725030296,0.744612656,0.763975483,0.782758742,0.800558492,0.816970793,0.83124045,0.842234672,0.848776761,0.850550589,0.847635189,0.840443281,0.828851929,0.812281564,0.791504944,0.766680131,0.738386695,0.707300796,0.673650749,0.637893184,0.600511073,0.561829326,0.521400095,0.480742549,0.439233214,0.398935703,0.361053057,0.324768612,0.291452256,0.261218146,0.233758935,0.209364408,0.187454996,0.168223889,0.15136374,0.136769174,0.123351306,0.112014612,0.101828272,0.09301182,0.085626723,0.078777288,0.072683047,0.067335218,0.062865523,0.058580235,0.054988672,0.051642986,0.048446583,0.045417025,0.043485133,0.040587295,0.03876956,0.036758636,0.034817963,0.033184636,0.03208697,0.030348267,0.028723722,0.027950965,0.026633766,0.025097034,0.024420871,0.023279299,0.022111382,0.021426439,0.020750277,0.019345264,0.018168566,0.018036846,0.016939181,0.016096173,0.01514779,0.014761411,0.013549588,0.013013927,0.01224117,0.011617696,0.011020566,0.010493686,0.009878993,0.008965735,0.008561794,0.008280792,0.007727568,0.00734119,0.007165563,0.006726497,0.005707863,0.005435642,0.004794605,0.004943887,0.004601416,0.004267725,0.004056973,0.003881347,0.00370572,0.00344228,0.003091027,0.002757337,0.00251146,0.002335833,0.002212895,0.002098737,0.002002143,0.001896767,0.001800172,0.001686015,0.001563076,0.001422575,0.00125573,0.001044978,0.000772757,0.000544442,0.00033369,0.000509317,0.000649818,8.78E-05,0.000245877,0.000316128,0.00046541,0.000377597,0.000193189,0.000281002,0.000421504,5.27E-05,0,0.000377597,9.66E-05\nSRI-1053125-001.txt,CC(NS(=O)(=O)c1ccc(Oc2ccccc2Cl)cc1)C(O)=O,0.748417304,0.728633606,0.709399455,0.692363492,0.680823002,0.674777983,0.675877077,0.684120285,0.699452651,0.721214719,0.747263255,0.77935681,0.813208916,0.847995252,0.882232041,0.913995867,0.941857909,0.965543392,0.983843313,0.995878396,1,0.99615317,0.984227996,0.962850611,0.933504792,0.896465313,0.851402444,0.800404467,0.744790293,0.68708784,0.628995208,0.572518245,0.519844148,0.470736613,0.42614086,0.386045898,0.350198936,0.318704388,0.291292975,0.267288754,0.246191638,0.227446584,0.210932691,0.195699244,0.182042997,0.170310164,0.160308406,0.152015739,0.144470456,0.136947156,0.128912776,0.121136683,0.113849688,0.106749538,0.099858217,0.092807527,0.085372153,0.078173085,0.072040139,0.066802954,0.061367933,0.055498769,0.048733843,0.042089818,0.035616152,0.029104018,0.023778906,0.019404511,0.015623626,0.012628594,0.01060626,0.009155456,0.007946452,0.006841862,0.00605601,0.00524268,0.0043689,0.004050163,0.003753407,0.003819353,0.003599534,0.003396202,0.003445661,0.003588543,0.003198365,0.00326431,0.003319265,0.003170887,0.00308296,0.00268179,0.002896114,0.002747736,0.002489449,0.002428999,0.002286116,0.002187198,0.002214675,0.001939902,0.001720083,0.001401345,0.0013354,0.000807834,0.000846303,0.000763871,0.000478106,0.000423151,0.000653961,0.000593511,0.000912248,0.000972698,0.000840807,0.000434142,0.000588015,0.000533061,0.000505583,0.000439638,0.000577025,0.000439638,0.000846303,0.000478106,0.000395674,0.000620988,0.000247296,0.000631979,0.000670448,0.000577025,0.000670448,0.000456124,0.000379188,0.000560538,0.00052207,0.00046162,0.00035171,0.000313242,0.000434142,0.000620988,0.00041216,0.000357206,0.000417656,0.000335224,0.000258287,0.000247296,0.000219819,0.000428647,0.000357206,0.000241801,0.000274774,0.00029126,0.000258287,0.000203332,0.000181351,0.000175855,0.000164864,0.000148378,0.000131891,0.000126396,0.000137387,0.000137387,0.000131891,0.000131891,0.000137387,0.000159369,0.000164864,0.000159369,0.000164864,0.000164864,0.000192342,0.00046162,0.000252792,0.00017036,0.000263783,0.000335224,0.000104414,0.000368197,0.000219819,0,0.000153873,0.000346215,0.000131891,0.000280269,0.000329728\nSRI-0000284.txt,CSC(=S)NNC(=O)C1=CC=C(C)C=C1,0.183513839,0.174488568,0.174488568,0.19253911,0.183513839,0.195547533,0.210589651,0.225631769,0.222623345,0.252707581,0.249699158,0.258724428,0.279783394,0.297833935,0.312876053,0.333935018,0.354993983,0.370036101,0.388086643,0.397111913,0.418170878,0.445246691,0.463297232,0.492178099,0.519554753,0.533694344,0.558062575,0.581227437,0.611913357,0.628760529,0.657942238,0.673586041,0.699157641,0.719614922,0.751203369,0.780385078,0.790613718,0.827316486,0.84566787,0.86101083,0.893501805,0.907039711,0.916064982,0.943742479,0.954873646,0.955776173,0.968712395,0.983152828,0.994584838,1,0.995788207,0.993983153,0.993080626,0.986462094,0.965703971,0.954271961,0.947352587,0.930806258,0.916967509,0.894705174,0.876955475,0.852587244,0.830024067,0.80746089,0.784897714,0.750300842,0.722924188,0.689229844,0.649518652,0.624849579,0.593862816,0.567388688,0.515042118,0.490373045,0.455475331,0.438929001,0.398916968,0.368531889,0.336943442,0.313176895,0.273465704,0.24488568,0.215403129,0.199157641,0.172683514,0.145908544,0.129362214,0.112515042,0.097172082,0.077918171,0.072803851,0.055956679,0.048736462,0.045427196,0.037605295,0.034296029,0.019554753,0.0255716,0.02045728,0.009326113,0.010529483,0.022563177,0.01143201,0.014139591,0.010830325,0.022864019,0.02677497,0,0.013237064,0.013237064,0.001805054,0.010830325,0.019253911,0.009626955,0.019855596,0.012635379,0.008724428,0.014139591,0.015042118,0.015944645,0.000601685,0.004813478,0.019253911,0.017448857,0.00511432,0.014741276,0.013537906,0.02166065,0.030685921,0.009927798,0.004512635,0.01534296,0.018050542,0.012033694,0.013838748,0.009326113,0.017749699,0.013838748,0.000902527,0.01022864,0.012635379,0.005716005,0.003910951,0.008423586,0.004211793,0.007220217,0.004512635,0.004211793,0.002406739,0.003309266,0.003910951,0.003910951,0.003008424,0.002707581,0.002406739,0.002406739,0.001805054,0.001805054,0.002105897,0.002707581,0.003008424,0.003910951,0.004813478,0.005716005,0.00631769,0.006919374,0.007521059,0.012033694,0.014440433,0.009025271,0.006618532,0.007821901,0.003610108,0.007220217,0.002707581,0.003910951,0.003610108,0.007821901,0.003910951,0.023164862,0.013537906\nSRI-0000290.txt,CC1=CC=C(C=C1)C1=NN=C(S1)S(C)(=O)=O,0.550115872,0.547960119,0.547960119,0.545804365,0.543648612,0.539337106,0.533947723,0.526402587,0.517779574,0.508078685,0.497299919,0.484688763,0.470460792,0.455909458,0.440280248,0.422818647,0.405572622,0.387895446,0.370326058,0.351571005,0.333570466,0.316863379,0.300910806,0.286575047,0.274395042,0.263400701,0.254023174,0.246801401,0.241304231,0.237100512,0.234298033,0.233435732,0.233672864,0.234599838,0.236744813,0.240970089,0.245777418,0.252158448,0.259455672,0.268833199,0.279816761,0.292632714,0.306343304,0.32244678,0.340652115,0.359730531,0.380145513,0.401756939,0.424780383,0.449355969,0.474427378,0.499951496,0.526262463,0.552670439,0.578593371,0.603481541,0.629533818,0.656793317,0.683686338,0.709792509,0.734637564,0.757402317,0.779800593,0.801476691,0.822603072,0.843330639,0.863422258,0.881886284,0.899002964,0.915925627,0.931641067,0.946601994,0.959245486,0.971156023,0.981029372,0.988790084,0.99431959,0.998318513,1,0.999655079,0.997563999,0.993004581,0.985922932,0.976998114,0.965626516,0.952153058,0.936200485,0.918070601,0.89728914,0.875181892,0.849636217,0.822646187,0.794610617,0.764430073,0.733020749,0.700145513,0.666580437,0.632508758,0.598361628,0.563438426,0.528353544,0.492815953,0.458022096,0.423562382,0.389307464,0.355257343,0.32287793,0.290962005,0.260900027,0.232196174,0.204559418,0.179541902,0.156777149,0.13562921,0.11738076,0.100339531,0.084882781,0.071743465,0.060943142,0.050843438,0.04236055,0.035699272,0.029458367,0.024586365,0.020123956,0.017062786,0.01327944,0.011156023,0.009754783,0.007696039,0.006542711,0.005895985,0.005184586,0.004063595,0.003298302,0.003115063,0.002468337,0.002403665,0.002198868,0.001897063,0.00191862,0.001713824,0.001250337,0.001649151,0.001218001,0.001174885,0.001099434,0.001002425,0.000905416,0.000862301,0.000743735,0.000625168,0.000517381,0.000474266,0.000441929,0.000409593,0.000398814,0.000388036,0.000398814,0.000409593,0.000420372,0.000431151,0.000441929,0.000420372,0.000334142,0.000280248,0.000474266,0.000732956,0.000237133,0.000431151,0.000366478,0.000301805,0.000312584,0.000603611,0,0.00052816,0.000592832,0.000377257,0.000334142,0.000646726,0.000409593\nSRI-1052895-001.txt,O=C(CCc1c[nH]c2ccccc12)NCCNS(=O)(=O)c1cccc2nsnc12,0.977500241,0.993450332,1,0.997691124,0.983272431,0.955236083,0.911414563,0.852561792,0.780656804,0.699068675,0.613828752,0.531533824,0.455034645,0.38727621,0.329083117,0.280007728,0.239084083,0.204945706,0.176438159,0.152077164,0.131956961,0.115347191,0.101635297,0.090774157,0.082386812,0.075978504,0.071172273,0.067826759,0.065645107,0.064313969,0.063868686,0.064097218,0.065051396,0.066766561,0.069115489,0.071853156,0.075017258,0.078530047,0.08246456,0.086832576,0.091480955,0.096287186,0.101449173,0.106931575,0.112607168,0.118398206,0.124318823,0.130413784,0.136595916,0.14304192,0.149282953,0.155509849,0.161911089,0.16818275,0.174331899,0.180266652,0.185977585,0.191674383,0.197851803,0.204752514,0.212324684,0.220398682,0.228270063,0.23549119,0.241890074,0.247563311,0.252621634,0.257590429,0.263984601,0.271778235,0.281433105,0.291358915,0.299889975,0.305329969,0.307605861,0.308446951,0.309419977,0.311639325,0.315375934,0.320069078,0.325035517,0.329453008,0.333031766,0.336716543,0.340973827,0.345235823,0.34935646,0.352329726,0.353882327,0.353835208,0.351917427,0.348793377,0.343829294,0.336900311,0.327224237,0.315206303,0.301284724,0.285930701,0.270604949,0.255557205,0.241696882,0.228863774,0.217024896,0.206470035,0.196753909,0.18748071,0.178928446,0.170670681,0.162707416,0.15500331,0.147433496,0.140174674,0.132962971,0.126220111,0.119479608,0.112666068,0.106191792,0.099696312,0.093250308,0.08674776,0.080379504,0.073846328,0.067388544,0.061131019,0.054974803,0.048931674,0.043369168,0.038065822,0.033144147,0.028712519,0.02482277,0.021342965,0.018313154,0.015620251,0.01325012,0.011294643,0.009522934,0.008213001,0.007148091,0.005913549,0.005112511,0.004431628,0.003870901,0.003225358,0.002916723,0.002756515,0.002610443,0.002457303,0.002233484,0.001969612,0.001703385,0.001472497,0.001338206,0.001274594,0.001248678,0.001225118,0.001196846,0.001166218,0.001126166,0.001079046,0.001027214,0.00095889,0.000881142,0.000793971,0.000702087,0.000638475,0.000617271,0.000598423,0.000504183,0.000381671,0.000407587,0.000384027,0.000214396,0.000266228,0.000219108,0.00018848,0.000146072,2.36E-06,0.00015314,0.00014136,0\nSRI-1052749-001.txt,CCOc1ccc(cc1)S(=O)(=O)NCCN1CCN(CC1)S(=O)(=O)c1ccc(OCC)cc1,0.157797759,0.174196639,0.192954009,0.215949292,0.242003243,0.271484375,0.304540094,0.341538915,0.381227889,0.424602005,0.470518868,0.518130896,0.567769752,0.619103774,0.670290389,0.721513856,0.771042158,0.818396226,0.862875884,0.902896521,0.937315743,0.96535967,0.985554245,0.997530955,1,0.993108785,0.97604658,0.948923939,0.912514741,0.866863208,0.812540537,0.751381928,0.685878538,0.618646816,0.553125,0.490879275,0.433884876,0.383391067,0.339121462,0.301451946,0.270076651,0.244461232,0.2231648,0.205030218,0.188815596,0.173887087,0.160119399,0.148120578,0.138063827,0.129728037,0.122449882,0.115182783,0.107237618,0.097884729,0.087577388,0.07733638,0.06758181,0.059581368,0.0537699,0.04987102,0.046716539,0.043049823,0.038045401,0.031596403,0.024819428,0.018897406,0.014110407,0.010627948,0.008129422,0.006286851,0.005004422,0.004090507,0.003412441,0.003018131,0.002712264,0.002347435,0.002115271,0.0018352,0.001610407,0.001315596,0.00116082,0.001050265,0.001201356,0.000807046,0.000663325,0.000751769,0.00065964,0.000493809,0.00039431,0.000442217,0.000361144,0.000442217,0.000497494,0.00038694,0.000383255,0.000405366,0.0002727,0.000331663,0.000372199,0.000276386,0.000368514,0.000313237,0.000239534,0.000283756,0.000283756,0.000320607,0.000232164,0.000316922,0.000298496,0.000210053,0.000368514,0.000420106,0.000361144,0.000383255,0.000243219,0.00025796,0.00038694,0.000438532,0.000361144,0.000368514,0.000184257,0.00038694,0.000280071,0.000339033,0.00039431,0.000228479,0.00013635,0.000147406,0.000173202,0.000103184,0.000346403,0.000254275,0.000191627,0.000198998,0.000184257,0.000375884,0.000353774,0.000191627,0.000221108,6.63E-05,0.00026533,0.000224794,0.00012898,0.000103184,0.000254275,0.000298496,0.000335348,0.000342718,0.000309552,0.000228479,0.000147406,7.74E-05,4.42E-05,3.32E-05,3.32E-05,3.69E-05,2.95E-05,3.32E-05,3.69E-05,4.79E-05,6.26E-05,7.37E-05,8.84E-05,0.000106869,0.000114239,0.000147406,0.000103184,0.000140035,4.79E-05,0,0,0.000140035,9.95E-05,0.000243219,0.000246904,5.16E-05,1.47E-05,2.95E-05,0.000162146,6.63E-05,0.000117925\nSRI-1053243-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)Nc1ncnc2[nH]cnc12,1,0.98555107,0.962054311,0.927045716,0.878869475,0.818708309,0.748513712,0.671912699,0.59341933,0.517074575,0.447372778,0.386975068,0.336078564,0.294663555,0.262335799,0.237932285,0.220033747,0.207477173,0.199395234,0.194624919,0.192693139,0.193047955,0.195413401,0.199509564,0.205086102,0.21197152,0.220132307,0.229450192,0.239747765,0.251302966,0.26379449,0.276908915,0.291066106,0.306153707,0.321623721,0.337797455,0.354525097,0.371729771,0.389279406,0.407128664,0.42513759,0.442994733,0.460934666,0.47861243,0.49590975,0.512789176,0.528811127,0.543995316,0.557900194,0.57019854,0.580699147,0.589333023,0.595818286,0.600665479,0.603578919,0.604712362,0.603728731,0.60119179,0.596273635,0.58980217,0.581000741,0.569473136,0.555603741,0.539183606,0.520579376,0.499461861,0.47705912,0.45506639,0.4348576,0.415999085,0.397385,0.376208348,0.350698989,0.321414773,0.290579219,0.259919102,0.231025184,0.204691861,0.181108369,0.159921861,0.141268352,0.124696434,0.110237648,0.097432703,0.086405784,0.076969628,0.06859595,0.061397111,0.055213442,0.049855708,0.045144529,0.041146926,0.037724914,0.034665605,0.032014335,0.029595667,0.027421428,0.025517244,0.023818066,0.022193793,0.0207489,0.01952084,0.018241528,0.017043035,0.016088972,0.015085629,0.014267579,0.013394336,0.012540804,0.011799631,0.011172788,0.010630707,0.009964439,0.009313942,0.008783688,0.00826329,0.007782316,0.007376248,0.007027345,0.006518774,0.006232949,0.005905729,0.005608077,0.005215807,0.00504037,0.004709208,0.004366218,0.004157271,0.003908899,0.003660527,0.003467349,0.003291912,0.003175611,0.002970605,0.002818823,0.002596077,0.002462035,0.002247173,0.00220972,0.002081592,0.001876587,0.001866731,0.001551338,0.001496144,0.001409411,0.001328592,0.001289168,0.001249744,0.001164982,0.001021084,0.000898869,0.000796367,0.000717518,0.000662325,0.000624872,0.000601217,0.000593333,0.000581505,0.000567707,0.000549966,0.000526312,0.000498715,0.000459291,0.000406068,0.000346932,0.000307508,0.000305537,0.000301594,0.000238516,0.000155725,0.000149812,0.000153754,7.29E-05,7.69E-05,0.000124186,0.000137984,0.000108416,2.76E-05,0,4.53E-05,8.87E-05\nSRI-0000521.txt,ClC1=CC=C(C=C1)N1CCNCC1,0.314627435,0.307043962,0.302493879,0.304443915,0.30942734,0.31961086,0.33326111,0.351028102,0.370095118,0.393712218,0.419712695,0.447229866,0.477347085,0.510931034,0.544081641,0.578748944,0.61471627,0.651333608,0.688384287,0.725434966,0.761185622,0.79780296,0.832253591,0.86473252,0.894416398,0.921933569,0.945659004,0.966741057,0.982449678,0.993044872,0.999089983,1,0.995319914,0.983793036,0.967694408,0.945594003,0.917773493,0.885272897,0.847377202,0.804541417,0.759495591,0.709444673,0.656772041,0.603232726,0.549151734,0.496435768,0.444391481,0.395337248,0.349056399,0.306675622,0.26780491,0.23415596,0.205750439,0.181895001,0.16109462,0.144584317,0.132472429,0.123242259,0.115962126,0.110848699,0.107208632,0.104543583,0.102940221,0.101336858,0.101683531,0.101900202,0.101661864,0.100860182,0.100860182,0.099906832,0.098650142,0.098086798,0.097761792,0.096245098,0.095183412,0.09438173,0.091955019,0.090199987,0.087101597,0.085064893,0.081576496,0.078911447,0.076246398,0.072823002,0.069767946,0.065564535,0.061881134,0.058132732,0.05490434,0.051307607,0.047559205,0.044829155,0.042034104,0.038329036,0.035100644,0.03165558,0.029033866,0.025567135,0.023530431,0.021883735,0.019543692,0.017810327,0.015730288,0.013975256,0.012805235,0.011375209,0.010010184,0.007865144,0.006976795,0.006370117,0.005308431,0.005720105,0.004268412,0.004333413,0.003813403,0.002903387,0.002556714,0.001690031,0.003813403,0.003271727,0.003120057,0.002145039,0.002925054,0.002448378,0.003965073,0.002123372,0.001928369,0.00346673,0.003120057,0.00088835,0.002058371,0.003120057,0.002426711,0.002795051,0.002145039,0.001906702,0.00162503,0.002123372,0.001430026,0.002708383,0.00199337,0.000390007,0.001235023,0.00147336,0.001300024,0.001711698,0.002101705,0.001885035,0.001451693,0.001040019,0.000671679,0.000390007,0.000173337,4.33E-05,0,8.67E-05,0.000195004,0.000281672,0.000390007,0.000498342,0.000606678,0.000758347,0.000866683,0.00088835,0.000845015,0.000671679,0.000585011,0.000996685,0.000433341,0.000346673,0.000996685,0.000585011,0.000303339,0.000628345,0.00088835,0.000780014,0.001755032,0.001365025,0.000628345,0.001343358,0.000931684\nSRI-0000535.txt,CCCCCCCCCCCCC\\C=C/[C@H]1OC(O)[C@H](O)[C@@H]1NC(=O)OCC,1,0.956382669,0.912765339,0.854608898,0.810991567,0.767374237,0.723756906,0.665600465,0.621983135,0.578365804,0.534748473,0.476592033,0.447513812,0.389357371,0.360279151,0.31666182,0.27304449,0.258505379,0.214888049,0.200348939,0.177086362,0.158185519,0.137830765,0.118929921,0.104390811,0.094213434,0.079674324,0.066589125,0.05931957,0.049142192,0.041872637,0.037510904,0.034603082,0.028787438,0.025879616,0.021517883,0.015702239,0.01584763,0.012649026,0.01192207,0.010468159,0.01584763,0.014393719,0.021517883,0.026025007,0.025588834,0.026170398,0.02369875,0.026315789,0.026461181,0.025443443,0.020645536,0.017301541,0.014248328,0.009159639,0.002762431,0.00261704,0.000290782,0,0.003634778,0.007414946,0.004507124,0.006397208,0.004361733,0.004361733,0.000290782,0.007124164,0.00392556,0.007996511,0.009886595,0.012212853,0.010758942,0.014102937,0.01584763,0.014829892,0.021954056,0.024134923,0.023989532,0.02108171,0.021227101,0.018755452,0.02500727,0.027915092,0.022099448,0.025152661,0.020790928,0.020354754,0.01977319,0.015993021,0.010177377,0.011340506,0.010904333,0.008868857,0.007560337,0.003198604,0.002762431,0.007124164,0.005670253,0.003198604,0.006251817,0.007269555,0.007996511,0.008868857,0.013666764,0.010322768,0.013666764,0.01061355,0.011195115,0.004507124,0.011485897,0.009014248,0.01192207,0.005961035,0.009305031,0.005815644,0.010177377,0.005088689,0.004507124,0.00523408,0.005524862,0.004507124,0.013957546,0.007414946,0.009886595,0.008578075,0.011195115,0.002907822,0.010758942,0.008723466,0.003780169,0.004507124,0.014829892,0.01192207,0.005088689,0.011631288,0.010322768,0.011195115,0.009741204,0.006106426,0.008868857,0.004943297,0.004652515,0.003198604,0.004943297,0.0065426,0.013666764,0.012939808,0.005815644,0.010322768,0.012212853,0.012503635,0.01192207,0.010468159,0.008723466,0.007124164,0.005670253,0.004652515,0.004216342,0.004652515,0.005088689,0.005379471,0.005088689,0.005524862,0.005815644,0.006978773,0.009450422,0.006833382,0.003634778,0.004943297,0.014102937,0.013666764,0.01192207,0.007705728,0.00785112,0.010758942,0.010468159,0.010468159,0.007414946,0.009741204,0.010177377,0.013666764\nSRI-1053253-001.txt,CCCC(NC(=O)CCn1nnc2ccccc2c1=O)C(O)=O,0.988721345,0.993319014,0.997054619,1,0.999353453,0.995258655,0.985704126,0.970761704,0.950287713,0.926221794,0.899210494,0.869756683,0.836279912,0.79734341,0.748852379,0.69274646,0.630893456,0.567531842,0.506038031,0.449932113,0.401728436,0.361786194,0.329099647,0.302878571,0.282117226,0.265019648,0.250795612,0.238216679,0.226751245,0.215910805,0.206155128,0.197670994,0.190206967,0.184043218,0.178791819,0.173784671,0.168870913,0.164309164,0.159697129,0.155774743,0.152470169,0.150968743,0.150473057,0.151766151,0.154934232,0.158993111,0.164294797,0.170674061,0.177584931,0.185142348,0.193094877,0.201794527,0.210601935,0.219394976,0.228338877,0.236880482,0.245077262,0.253173469,0.261032608,0.267914742,0.274344294,0.279394545,0.28350371,0.286513746,0.288417468,0.288999361,0.289078383,0.287533854,0.285428984,0.283273827,0.27973937,0.275601468,0.270788285,0.265299818,0.260077155,0.25451685,0.249473783,0.245055711,0.241621827,0.238288518,0.235364688,0.231708106,0.227591756,0.221988348,0.21468955,0.206478402,0.197620707,0.18827451,0.179912501,0.172089281,0.165666913,0.161629586,0.159100869,0.158202886,0.156981631,0.154302052,0.149079389,0.140408474,0.128792178,0.11448912,0.099374286,0.084654564,0.07067478,0.058728026,0.047973793,0.039051444,0.031522762,0.025466771,0.021077435,0.017255623,0.013979785,0.012140717,0.010136421,0.008067471,0.006803112,0.005711166,0.004798816,0.003793076,0.003620664,0.00288791,0.002614924,0.002722682,0.002334753,0.002025848,0.001989928,0.001760045,0.001070395,0.001293094,0.001673839,0.001206888,0.001127865,0.001077578,0.001027291,0.000905166,0.000883614,0.000790224,0.000998556,0.000761489,0.000768673,0.000624996,0.000567525,0.000481318,0.00040948,0.000646547,0.000610628,0.000567525,0.000531605,0.000466951,0.000359193,0.000215516,0.000136493,0.000114942,9.34E-05,7.9E-05,0.000122126,0.000165229,0.0002227,0.000272987,0.000308906,0.000352009,0.000380744,0.00040948,0.000423848,0.00040948,0.00040948,0.000474135,0.00059626,0.000668099,0.000308906,0,0.000251435,0.000258619,0.000423848,0.00018678,0.000682466,0.000359193,0.000510054,0.000445399,0.00018678,0.000337641,0.000395112\nSRI-1052954-001.txt,CC1CCN(CC1)S(=O)(=O)c1ccc(NC(=O)[C@@H]2CCCC[C@@H]2C(O)=O)cc1,0.197964567,0.173928994,0.156218572,0.146098331,0.13977318,0.137875635,0.137875635,0.13977318,0.144200786,0.148628391,0.154321027,0.161215441,0.169058628,0.179305372,0.19012138,0.202961436,0.217952043,0.234587189,0.25267712,0.272980854,0.294929127,0.318268933,0.343632787,0.37102069,0.399673622,0.430413855,0.462229363,0.495626158,0.53054099,0.566657601,0.604292247,0.641964845,0.679808221,0.717246788,0.753799834,0.789094175,0.82393943,0.85580554,0.885596999,0.912080405,0.935812371,0.956286884,0.973605146,0.986097319,0.995585045,1,0.998406062,0.991030936,0.977899923,0.960100949,0.937849069,0.913237908,0.885464171,0.856406429,0.825995104,0.79515367,0.763527916,0.731510003,0.6977843,0.661895395,0.621762313,0.577385056,0.528921752,0.477156718,0.423405588,0.368674059,0.315239186,0.264600029,0.218514981,0.177414152,0.141601149,0.112650934,0.088887343,0.070367302,0.056483596,0.045933244,0.0377738,0.031992612,0.027590307,0.024427732,0.022024175,0.019652243,0.018235409,0.016856527,0.015439693,0.014149362,0.013301792,0.012251817,0.011265093,0.010468124,0.009481401,0.008519978,0.007843187,0.007223322,0.006628758,0.006154372,0.00585709,0.0052562,0.004832415,0.004674286,0.004611035,0.004250501,0.004275802,0.004130323,0.003428232,0.003466183,0.003383956,0.002998121,0.002681864,0.002662888,0.002580661,0.002637588,0.002409882,0.002302355,0.001910196,0.001334607,0.001802668,0.00189122,0.001853269,0.002175852,0.002264404,0.002131576,0.001752067,0.001435809,0.001397858,0.00106895,0.000771668,0.00086022,0.000676791,0.000967748,0.001151177,0.00062619,0.000480711,0.000524988,0.000594564,0.000967748,0.000879196,0.001062625,0.000796969,0.000961423,0.000999374,0.000980398,0.000974073,0.001012024,0.00126503,0.001113227,0.001024674,0.001024674,0.001081601,0.001157503,0.001195453,0.001227079,0.001233404,0.001233404,0.001214429,0.001182803,0.001163828,0.001132202,0.001113227,0.001081601,0.00106895,0.001049975,0.001037325,0.001024674,0.000999374,0.000967748,0.001024674,0.001157503,0.000891846,0.000872871,0.000480711,0.00041746,0.000790644,0.00062619,0.000316258,0.000189755,0.000303607,0.000177104,0,0.000271981,2.53E-05\nSRI-1053382-001.txt,COC(=O)[C@@H](N)Cc1c[nH]c2ccccc12,1,0.959709079,0.905078722,0.836563494,0.757551965,0.670730195,0.580065292,0.491962478,0.411380636,0.340138022,0.280094219,0.231745113,0.193396421,0.163519154,0.140501674,0.122938964,0.109549981,0.099095004,0.09103682,0.084631596,0.079602463,0.075949419,0.073308814,0.071325261,0.070234307,0.069738419,0.069899583,0.070775652,0.07213108,0.074011323,0.076337865,0.079131369,0.08236704,0.086292822,0.090375635,0.095008058,0.099814042,0.104983677,0.110372329,0.115583289,0.121038059,0.126649862,0.132253399,0.138146204,0.143658829,0.149051614,0.154270838,0.159047895,0.163399314,0.167308566,0.170713666,0.173854291,0.176284144,0.177916443,0.178523906,0.178904087,0.179147899,0.180032233,0.181371131,0.182495144,0.18319352,0.182904252,0.180643828,0.176271747,0.169519402,0.161291789,0.153857597,0.149175586,0.147278813,0.146266375,0.141609157,0.131005413,0.114351833,0.095619654,0.077891648,0.062105872,0.049514443,0.039402455,0.031302946,0.024695235,0.019331377,0.015409728,0.012190586,0.00949626,0.007405265,0.005810157,0.004673747,0.003731559,0.00314889,0.002661267,0.002343072,0.001917435,0.001727344,0.001673623,0.001500062,0.001409149,0.001405017,0.001252118,0.00135956,0.0014794,0.001223191,0.001099219,0.001371958,0.001347163,0.001243853,0.001144675,0.001045498,0.001330633,0.001190132,0.00092979,0.001012439,0.000900864,0.000888466,0.000942188,0.000888466,0.00072317,0.000797554,0.000822348,0.000669449,0.000483491,0.000421505,0.000330592,0.000169428,0.000479359,0.000458697,0.000520683,0.000252077,0.000285136,0.000384313,0.000252077,0.000210753,0.000281003,0.000293401,0.000334725,0.000276871,0.000363651,0.000252077,0.000285136,0.000140502,0.000264474,4.96E-05,0.000185958,0.000181826,0.00020662,0.000161164,0.000157031,0.000136369,0.000115707,8.26E-05,5.37E-05,3.31E-05,2.48E-05,3.72E-05,5.79E-05,7.44E-05,9.09E-05,9.92E-05,0.00010331,0.000111575,0.000111575,0.000107442,9.92E-05,8.68E-05,7.44E-05,9.09E-05,9.92E-05,5.37E-05,9.92E-05,7.44E-05,3.72E-05,0.00020662,0.000301665,9.09E-05,0.00019009,0.000264474,0.00022315,0.000285136,0.00011984,0.000214885,0.000256209,0\nSRI-1053392-001.txt,CCC(NS(=O)(=O)c1ccccc1)C(O)=O,0.721298526,0.769967766,0.817745162,0.862146288,0.902725223,0.938207902,0.966237307,0.98643122,0.998088904,1,0.991145256,0.971206156,0.941201952,0.901196346,0.851953777,0.794620902,0.731873256,0.664475277,0.59433806,0.521843825,0.450559951,0.382079017,0.318375823,0.260979245,0.211736676,0.170393304,0.137203939,0.110703411,0.090757941,0.075934207,0.065283033,0.057721464,0.052548765,0.049159755,0.047560805,0.047242289,0.047407917,0.047095771,0.046617997,0.045617857,0.045095491,0.045656079,0.047012957,0.048522723,0.049051459,0.04787295,0.045732523,0.043916982,0.042196996,0.040719082,0.038387545,0.035654678,0.032883589,0.031291009,0.030730421,0.029379913,0.026232975,0.021659086,0.016862235,0.012715158,0.010045994,0.008058454,0.006535948,0.005656844,0.00499433,0.004497446,0.004261744,0.004159819,0.00399419,0.003694785,0.003682045,0.003828562,0.00359286,0.00339538,0.003510046,0.003408121,0.003408121,0.003452713,0.003465454,0.00338264,0.00339538,0.003618341,0.003611971,0.003694785,0.003643823,0.003497305,0.003675674,0.004032412,0.003943228,0.004108856,0.004210781,0.004612111,0.004624852,0.005000701,0.005102626,0.004943368,0.005223662,0.00558677,0.005962619,0.005930767,0.006032692,0.00617921,0.006446763,0.007000981,0.007141128,0.007446903,0.007510607,0.007994751,0.008077565,0.008402451,0.008746449,0.009128668,0.009447184,0.009262444,0.009338888,0.009504517,0.010109697,0.010033253,0.010103327,0.010434583,0.010784951,0.010434583,0.010294436,0.010670285,0.010593841,0.010683026,0.010307177,0.010358139,0.010268955,0.010058734,0.009784811,0.009727478,0.009345259,0.009205112,0.00897578,0.008816522,0.008803781,0.008810152,0.008243193,0.008020232,0.007708086,0.007344978,0.006720687,0.006593281,0.006128247,0.005510326,0.005019812,0.004720407,0.004357298,0.003720267,0.003076864,0.002535387,0.002140427,0.001885615,0.001713616,0.001560728,0.001407841,0.001254953,0.001095695,0.000949178,0.00080266,0.000624291,0.000452293,0.000273924,0.000235702,0.000235702,0.000222961,8.28E-05,0,0.000184739,0.000509626,0.000458663,0.000331257,0.000426811,0.000388589,0.000254813,0.00039496,0.000171999,3.82E-05,0.000152888,0.00020385\nSRI-0000051.txt,CO[C@H]1O[C@@H]2COC(O[C@H]2[C@H](OS(=O)(=O)C2=CC=CC=C2)[C@H]1OS(=O)(=O)C1=CC=CC=C1)C1=CC=CC=C1,0.793334731,0.834416265,0.875497799,0.914064137,0.947600084,0.974009642,0.991616013,1,0.996646405,0.979878432,0.951372878,0.911129742,0.860406623,0.800880319,0.732970027,0.657514148,0.575351079,0.490085936,0.405198072,0.32487948,0.254453993,0.195304968,0.148061203,0.112135821,0.086019702,0.067574932,0.055334311,0.047830643,0.04359673,0.041710333,0.041416894,0.041919933,0.042967931,0.044602809,0.046866485,0.050098512,0.053213163,0.055631943,0.056944037,0.057514148,0.058499266,0.060515615,0.063035003,0.065022008,0.065638231,0.0650262,0.064032698,0.063311675,0.062146301,0.059132257,0.054747432,0.049205617,0.045051352,0.043672186,0.044376441,0.044414169,0.040704255,0.033510794,0.025105848,0.018029763,0.012588556,0.009088241,0.006996437,0.005784951,0.005055544,0.00479564,0.004389017,0.004259065,0.004162649,0.00357577,0.003349403,0.003181723,0.002959547,0.003055963,0.003169147,0.002984699,0.002972123,0.003014043,0.002900859,0.002863131,0.003068539,0.003114651,0.002905051,0.002850555,0.002808636,0.0026703,0.002557116,0.00250262,0.002347516,0.001865437,0.001911549,0.001777405,0.001630685,0.00142947,0.001383358,0.001307902,0.001123454,0.001043806,0.000964158,0.000850975,0.000901279,0.000888703,0.000708447,0.000876127,0.000804863,0.00094739,0.000771327,0.000708447,0.000913855,0.001169566,0.001131838,0.00109411,0.000800671,0.000716831,0.000997694,0.001400126,0.001182142,0.000913855,0.000863551,0.001245022,0.00115699,0.000972542,0.001173758,0.00115699,0.001064766,0.001110878,0.000955774,0.001190526,0.001039614,0.00103123,0.001106686,0.001140222,0.001144414,0.00109411,0.000943198,0.000939006,0.000691679,0.000863551,0.000838399,0.000737791,0.000662335,0.000578495,0.000616223,0.000570111,0.000846783,0.001131838,0.001014462,0.000532383,5.87E-05,0,4.19E-05,5.45E-05,0.00016768,0.000301824,0.000415007,0.000482079,0.000494655,0.000486271,0.000477887,0.000452735,0.000419199,0.000364703,0.000318591,0.000255712,0.000159296,0.00016768,0.000356319,0.000465311,3.77E-05,0.000243136,0.000213792,0.000222176,0.000268288,0.00029344,0.000377279,0.000276672,0.000134144,0.000368895,0.000306016,0.000318591,0.000347935\nSRI-1053086-001.txt,OC(=O)[C@@H](NC(=O)CCCn1nnc2ccccc2c1=O)c1ccccc1,1,0.991504909,0.983552737,0.974866027,0.965668334,0.953819917,0.937755891,0.917412382,0.893172629,0.864972758,0.835112193,0.803271568,0.768907966,0.729658089,0.683925115,0.631804856,0.575245431,0.518462452,0.46439407,0.415595199,0.374237518,0.34009747,0.312568264,0.290627934,0.273222578,0.259394102,0.247865049,0.2377412,0.228367857,0.219435236,0.211042341,0.203518118,0.196715657,0.190644541,0.185055665,0.179945836,0.174641194,0.169585657,0.164019136,0.158241835,0.152764737,0.148034951,0.145147898,0.144062059,0.145119155,0.147485645,0.1510753,0.155878539,0.16144506,0.167851508,0.174957365,0.18239536,0.190149526,0.198328447,0.206593596,0.214855552,0.223280383,0.231606211,0.239622256,0.247513749,0.255060328,0.261936242,0.268361853,0.273746335,0.27808969,0.281535631,0.284164,0.285728885,0.28632929,0.285863018,0.284687757,0.282541629,0.279475732,0.275758331,0.271405395,0.266940681,0.26260052,0.258956573,0.255756542,0.252805616,0.250298606,0.247686205,0.244601146,0.240197112,0.234330389,0.226997784,0.218643213,0.209688237,0.200551223,0.192158328,0.184477616,0.178326659,0.174002465,0.171275094,0.169509009,0.167611985,0.164290596,0.157960795,0.148197827,0.135720262,0.120959243,0.105422168,0.090025613,0.075631862,0.062739124,0.051478338,0.042248708,0.034465799,0.028142385,0.023013394,0.018960661,0.015680789,0.012966192,0.010615671,0.008945395,0.007508256,0.006317027,0.005192864,0.004579685,0.003698239,0.003299034,0.002781663,0.002302617,0.00182357,0.001724567,0.001443527,0.001159293,0.000977255,0.00092935,0.000922963,0.000811185,0.00071857,0.000677052,0.000558888,0.000558888,0.000510983,0.000504596,0.000530145,0.00034172,0.00023633,0.000300202,0.000297009,0.000405593,0.000396012,0.000357688,0.000287428,0.000287428,0.000284234,0.000293815,0.000252298,0.00021078,0.000172457,0.000156489,0.000146908,0.000134133,0.000127746,0.000127746,0.000121358,0.000118165,0.000108584,0.00010539,0.000102197,0.00010539,0.00010539,0.000137327,0.000118165,0.000156489,0.000354494,0.000268266,0.00021078,0.000146908,0.000162876,0.000108584,0,0.000162876,0.000207587,0.000169263,0.000102197,1.28E-05,0.0002012,0.000242717\nSRI-1053096-001.txt,COc1ccc(cc1[N+]([O-])=O)S(=O)(=O)NC(CCSC)C(O)=O,0.725973363,0.757529352,0.789410181,0.822079911,0.854099958,0.884449394,0.91368509,0.939857998,0.963153743,0.980555942,0.993224744,0.999953594,1,0.993781614,0.980787972,0.960555014,0.934103671,0.901851594,0.863798784,0.821662258,0.776555757,0.730057079,0.683744025,0.6392408,0.597011462,0.557937723,0.522715671,0.491020465,0.461923987,0.435398394,0.411132767,0.388547032,0.367460207,0.347176203,0.327885285,0.309063066,0.290695624,0.273209894,0.256137176,0.239788389,0.224223862,0.209341501,0.195442944,0.182621003,0.170815351,0.15972899,0.149515059,0.140233886,0.131709128,0.12357418,0.116037867,0.109063066,0.102594088,0.096398905,0.090895169,0.085660587,0.080950392,0.076490788,0.072379229,0.069098334,0.066003063,0.063330085,0.061088682,0.059306696,0.0577521,0.05640633,0.055311151,0.054837811,0.054155645,0.053914335,0.054081396,0.054420159,0.055037357,0.055793772,0.056615156,0.05775674,0.059028261,0.060555014,0.062156017,0.063548192,0.065237366,0.067019351,0.068778134,0.070550838,0.072513806,0.074472133,0.076258759,0.078068588,0.079934104,0.081776417,0.083572324,0.085358949,0.087140935,0.088936842,0.090500719,0.091953223,0.093266509,0.094551951,0.095795629,0.096807276,0.09770291,0.09857534,0.099280709,0.099754049,0.100283076,0.100519746,0.100538308,0.100232029,0.100329482,0.100167061,0.099508098,0.098900181,0.098366514,0.09723421,0.09604158,0.094876792,0.093428929,0.091628382,0.090259409,0.088347487,0.086537658,0.084607174,0.082467864,0.080342475,0.078142837,0.075766857,0.073446564,0.070833913,0.068258388,0.065752471,0.063538911,0.061385679,0.058954012,0.056457376,0.054025709,0.051617244,0.049380482,0.046976658,0.044582115,0.042466008,0.040215323,0.038071372,0.036080561,0.033950531,0.031992204,0.030112766,0.02887837,0.02816836,0.027184556,0.025254072,0.022956982,0.020891921,0.019323402,0.018228224,0.017416121,0.016715393,0.016019305,0.01527217,0.014455427,0.013569075,0.012589911,0.01147153,0.010172166,0.008747506,0.007318205,0.006134855,0.005350596,0.004673071,0.004213653,0.003689266,0.003355144,0.002788993,0.002413105,0.001837672,0.001656689,0.001229755,0.001020929,0.000770337,0.000464059,0.000245951,0\nSRI-1053298-001.txt,CC(C)[C@H](NC(=O)Cn1ncc2ccccc2c1=O)C(O)=O,1,0.971477173,0.949655492,0.933761748,0.922564534,0.912656002,0.901773799,0.889917925,0.875885611,0.860965538,0.845129069,0.82688706,0.800597948,0.761364743,0.70692509,0.641431411,0.57321718,0.509355831,0.45511664,0.412704686,0.382034056,0.360871034,0.346895995,0.336787001,0.328734171,0.320457969,0.312310635,0.305486349,0.301351111,0.300308711,0.302321918,0.305712584,0.308490409,0.307797385,0.301517208,0.288770712,0.271877524,0.25473519,0.240138719,0.22996386,0.224247839,0.222289043,0.223130982,0.22602622,0.230473605,0.23594048,0.242220657,0.249483095,0.257112092,0.265646031,0.274529345,0.283621712,0.292338929,0.300305847,0.307725791,0.313983058,0.319375476,0.323645309,0.327631632,0.331068117,0.333863125,0.33640326,0.338110048,0.338313373,0.337428478,0.334919844,0.331251396,0.326328631,0.319928177,0.312493915,0.304206258,0.295262805,0.285634919,0.275737842,0.265703305,0.256983224,0.249231086,0.243454928,0.239875256,0.237979461,0.236716553,0.235078495,0.231498823,0.225046822,0.216023185,0.205129527,0.193854992,0.183642903,0.175297972,0.169536132,0.166683849,0.166228515,0.166483387,0.1655584,0.16086187,0.150792969,0.13514837,0.115546086,0.094454658,0.074150759,0.056134985,0.041501286,0.030020562,0.021452259,0.015320996,0.010890794,0.007995555,0.005925073,0.004564798,0.003622628,0.002958241,0.002640366,0.002119166,0.001798427,0.001492007,0.001297273,0.001165541,0.000924987,0.001022354,0.000899214,0.000750299,0.000710207,0.000650068,0.000641477,0.000747436,0.000607112,0.000446743,0.000607112,0.000578475,0.000526928,0.000604249,0.000609976,0.000524064,0.000446743,0.000452471,0.000383741,0.000378013,0.000335057,0.00047538,0.000323602,0.000343649,0.000312147,0.000223372,0.000309284,0.000274919,0.000289238,0.000280646,0.000231963,0.000160369,8.59E-05,6.3E-05,4.3E-05,2E-05,5.73E-06,0,2E-05,3.72E-05,5.44E-05,6.59E-05,7.73E-05,9.16E-05,0.000103095,0.000111686,0.000103095,7.73E-05,8.02E-05,0.000166097,0.000120277,0.000105958,9.16E-05,4.3E-05,1.43E-05,3.15E-05,0.000117413,0.000254873,0.000243418,0.000174688,4.01E-05,0.000148914,6.3E-05,9.45E-05\nSRI-1052792-001.txt,CCc1ccc(cc1)S(=O)(=O)NCCN1CCN(CC1)S(=O)(=O)c1ccc(CC)cc1,0.673495887,0.723626143,0.772934592,0.821037724,0.866100167,0.906670063,0.941952998,0.970004027,0.989836981,1,0.999945213,0.989508258,0.968031689,0.936227739,0.894534706,0.84410312,0.786494416,0.723489175,0.655963994,0.584548924,0.512558588,0.442020112,0.374768867,0.313270273,0.25911316,0.21292758,0.174960074,0.144087506,0.11995376,0.101052188,0.086700689,0.075970623,0.068037442,0.062435454,0.058830458,0.056759504,0.055430915,0.053990012,0.052288871,0.050560336,0.049294752,0.049064646,0.050006985,0.050763048,0.050538421,0.048976987,0.046640314,0.044383083,0.04217516,0.039805615,0.036929289,0.033762591,0.031132807,0.029859005,0.029393314,0.027815444,0.024089917,0.018855003,0.013677616,0.009675413,0.007051108,0.005029462,0.003876192,0.003221485,0.002755794,0.002522949,0.002229838,0.002106567,0.001944944,0.002027125,0.001816195,0.001758668,0.001783322,0.00166279,0.001703881,0.001618961,0.001583349,0.001512126,0.001487472,0.001369679,0.001276541,0.001246408,0.001136834,0.000994387,0.000945079,0.000791675,0.000786196,0.000690318,0.000558829,0.000495824,0.000460212,0.000273936,0.000309547,0.000186276,0.000262978,0.000235585,0.000276675,0.000210931,5.48E-05,0.000238324,0.000230106,0.000268457,0.0002575,0.000197234,0.000142447,0.000208191,0.000186276,0.000268457,0.00021367,0.000142447,0.000284893,0.000197234,0.000268457,0.000249282,0.0002575,0.000284893,0.000175319,0.0002575,0.000104096,3.01E-05,0.000139707,0.000394468,0.000325984,0.000284893,0.000224627,0.000224627,0.000139707,0.000205452,0.000161622,0.000186276,0.000230106,0.000227367,0.000205452,0.00017258,0.00021367,0.000183537,0.000175319,0.000224627,0.000279415,0.000271196,0.000191755,0.000227367,0.000142447,0.000189016,0.000186276,0.000189016,0.000208191,0.000235585,0.000241064,0.000210931,0.00016984,0.000153404,0.000131489,0.000117792,0.000112314,0.000109574,0.000106835,0.000104096,0.000104096,0.000106835,0.000109574,0.000117792,0.00012875,0.000145186,0.000150665,0.000156143,0.00017258,0.00012875,0.00012601,0.000238324,9.31E-05,0.000230106,0.000164361,0.000279415,0.000232845,0,9.86E-05,0.000224627,5.48E-05,9.86E-05,0.000191755\nSRI-1052782-001.txt,OC(=O)C(Cc1c[nH]c2ccccc12)NS(=O)(=O)c1ccc2C(=O)c3ccccc3C(=O)c2c1,0.913323841,0.917909336,0.919399621,0.909311534,0.89475259,0.873544679,0.843853604,0.814323021,0.781467954,0.751696633,0.722555817,0.696991686,0.680323415,0.668779433,0.661786554,0.662474379,0.669008708,0.679211433,0.69092737,0.708501277,0.727359122,0.748578497,0.770302276,0.79247314,0.815526713,0.839084689,0.860223818,0.879207764,0.899464185,0.920351111,0.93634073,0.946755534,0.957075188,0.969320751,0.977113798,0.985399786,0.991597082,0.997163872,1,0.994480211,0.987520577,0.97309232,0.956036574,0.936128651,0.912138491,0.890055897,0.863220438,0.833441092,0.801476758,0.769435617,0.735282856,0.703155737,0.673904869,0.647076289,0.625414414,0.607078169,0.590631147,0.577371044,0.564404413,0.552294123,0.539812407,0.525975679,0.51080801,0.493934537,0.475405702,0.455356774,0.435062523,0.415014742,0.396137409,0.378279202,0.360318967,0.341215798,0.320422874,0.298649801,0.276990219,0.256863339,0.238600461,0.222656698,0.209090513,0.197640534,0.188346883,0.180888577,0.175189954,0.171029764,0.168225735,0.166826013,0.166350268,0.166876453,0.168186758,0.170244499,0.172826132,0.175894974,0.179299703,0.182937147,0.186714448,0.190688925,0.19465767,0.198652782,0.202420912,0.206207384,0.209633894,0.212959524,0.215921753,0.218438043,0.220721619,0.222454936,0.22375607,0.22443587,0.224547068,0.22419857,0.223202372,0.221496568,0.219340239,0.216491501,0.213056966,0.209017145,0.204578387,0.199592808,0.194187657,0.188180659,0.181999413,0.175514378,0.168733578,0.161628355,0.154203293,0.146610861,0.138918695,0.131123354,0.12352863,0.116322525,0.109568092,0.102671509,0.095785243,0.088889806,0.082197277,0.075820001,0.069719001,0.06400089,0.058561347,0.053416422,0.048695656,0.044225946,0.040109318,0.03637214,0.032927288,0.030028109,0.028177862,0.027178224,0.025807162,0.023228967,0.020283934,0.017611737,0.015722513,0.014477552,0.013634967,0.012929947,0.012253587,0.011534811,0.010787375,0.00998606,0.009109084,0.008115178,0.006999757,0.005831602,0.004720766,0.003894231,0.003360021,0.002982864,0.002665319,0.002366115,0.002082961,0.001900687,0.001610655,0.001395137,0.001225473,0.000968686,0.000761192,0.000517014,0.000355376,0.000176542,0\nSRI-1052926-001.txt,NC(=O)c1ccc(NC(=O)C[C@@H]2NC(=O)N(CCc3c[nH]c4ccccc34)C2=O)cc1,1,0.990521596,0.974472129,0.949298811,0.914032529,0.866238681,0.805397254,0.733210106,0.654688265,0.574890029,0.500102821,0.434510373,0.379790908,0.3364408,0.303632758,0.280563126,0.265151855,0.256075279,0.251844271,0.251489717,0.254184325,0.259242626,0.266428249,0.275150272,0.285550516,0.297605344,0.310582012,0.325078534,0.340631626,0.357234197,0.374701879,0.392959035,0.411956026,0.431676307,0.451616411,0.472074163,0.492345184,0.512854938,0.532851771,0.55260987,0.571656499,0.590095659,0.607508976,0.623619899,0.639026443,0.652449848,0.664426675,0.674214722,0.682066907,0.687560126,0.690739292,0.691597312,0.689755996,0.685378439,0.678152633,0.66846386,0.657181959,0.645004219,0.632880844,0.620308367,0.60724897,0.592806813,0.576272789,0.557639806,0.536614768,0.512552385,0.486547048,0.459430776,0.433056703,0.407193187,0.38103421,0.352078985,0.318583109,0.281388054,0.242916607,0.205608095,0.171573297,0.141665505,0.116137633,0.094403487,0.076328336,0.061366167,0.049176608,0.039187646,0.031037637,0.024674579,0.019491003,0.015309632,0.012035919,0.009568224,0.007488176,0.006053415,0.004793567,0.003890637,0.003013707,0.002538605,0.002264417,0.001805861,0.0015364,0.00136385,0.001084935,0.00101166,0.000914749,0.000969114,0.000770564,0.000706744,0.000635833,0.000676016,0.000598014,0.000538922,0.000560195,0.000432556,0.000489284,0.000501103,0.000477466,0.000477466,0.000333281,0.000252915,0.000316735,0.0003711,0.000297825,0.000323826,0.000354554,0.000326189,0.000319098,0.000326189,0.000252915,0.000189095,0.000252915,0.000354554,0.000297825,0.000260006,0.00013473,0.000127639,0.000264733,0.000312007,0.000271825,0.000139458,0.000208005,0.000193823,0.000186732,0.000295461,0.000167822,0.000144185,0.00015364,0.000167822,0.000158367,0.000148913,0.000130003,9.69E-05,7.56E-05,6.15E-05,5.67E-05,4.73E-05,3.55E-05,3.55E-05,4.02E-05,4.49E-05,4.73E-05,4.96E-05,5.44E-05,5.2E-05,5.44E-05,5.2E-05,5.44E-05,4.73E-05,4.73E-05,6.15E-05,7.33E-05,0.000106366,0.000125276,9.93E-05,0.000101639,4.73E-05,9.69E-05,0.000111094,0.000104002,2.84E-05,0,4.73E-05,3.55E-05\nSRI-1052936-001.txt,O=C(CNC(=O)N1CCc2c(C1)[nH]c1ccccc21)NCCc1c[nH]c2ccccc12,0.979891508,0.99298541,1,0.995323606,0.985970819,0.96352413,0.927983539,0.881687243,0.826038159,0.761036289,0.690422746,0.621679761,0.552936775,0.485596708,0.423400673,0.36775159,0.320987654,0.281705948,0.248035915,0.220445193,0.2003367,0.181631126,0.165731388,0.151702207,0.143752338,0.147025814,0.148896371,0.151234568,0.153572765,0.153338945,0.153198653,0.150860456,0.15006547,0.14566966,0.145108492,0.140478863,0.137392443,0.135802469,0.139122709,0.144968201,0.152777778,0.158763562,0.165497568,0.17288627,0.1775159,0.186026936,0.19070333,0.196969697,0.202628133,0.206836887,0.211092406,0.216470258,0.21922933,0.22362514,0.224373363,0.225589226,0.225355406,0.226290685,0.223812196,0.224887767,0.22493453,0.223952488,0.220398429,0.215347924,0.210858586,0.206182192,0.195613543,0.185652825,0.178170595,0.173260382,0.166760195,0.161569398,0.152543958,0.143378227,0.126917321,0.111672278,0.096567527,0.082538346,0.071829405,0.061167228,0.05097269,0.038580247,0.032033296,0.029554807,0.022119342,0.017723532,0.014450056,0.012018331,0.010054246,0.007903105,0.008744856,0.008370744,0.007622522,0.005985784,0.003694351,0.005050505,0.006032548,0.00724841,0.006780771,0.00902544,0.008698092,0.008183689,0.009493079,0.008323981,0.008885148,0.008978676,0.010802469,0.009072204,0.010521886,0.012158623,0.01271979,0.013514777,0.010802469,0.00986719,0.011924804,0.012392443,0.013935653,0.014216236,0.011363636,0.012813318,0.013982417,0.014403292,0.017209128,0.014029181,0.016414141,0.015385335,0.015011223,0.015712682,0.014824168,0.014777404,0.016601197,0.015057987,0.018284699,0.015151515,0.014075945,0.015899738,0.014824168,0.013888889,0.012626263,0.015432099,0.015946502,0.014543584,0.014029181,0.012392443,0.013140666,0.013000374,0.012860082,0.01271979,0.012439207,0.011690984,0.010942761,0.010288066,0.009680135,0.009165731,0.008744856,0.008323981,0.007949869,0.007575758,0.00701459,0.006500187,0.005892256,0.005331089,0.004582866,0.003928171,0.003367003,0.002665544,0.002665544,0.003507295,0.00154321,0,0.002244669,0.003460531,0.004769921,0.002478489,0.0028526,0.002151141,0.002384961,0.001122334,0.002525253,0.002431725,0.004349046\nSRI-1053359-001.txt,COCCCNS(=O)(=O)c1ccc(cc1)C(O)=O,0.227736965,0.248854532,0.27291576,0.299856657,0.330445133,0.364489211,0.400709038,0.440576446,0.483707477,0.530870044,0.580336345,0.630250595,0.680228838,0.730399058,0.77890547,0.82517214,0.867663245,0.905994829,0.938823048,0.965507973,0.985217703,0.996800369,1,0.993216781,0.976194742,0.949189853,0.914038703,0.868373563,0.815810019,0.756348069,0.690589244,0.621131646,0.552569944,0.485665651,0.424226329,0.368533545,0.320199913,0.280396498,0.246973149,0.219385927,0.197788415,0.180753577,0.166905572,0.155502086,0.145327258,0.136291499,0.127838073,0.120446925,0.11449561,0.109734559,0.105581437,0.101095554,0.095969744,0.08949369,0.082147337,0.074084265,0.066155579,0.059103591,0.05442573,0.051763637,0.049658279,0.046823406,0.042260732,0.035970256,0.028975862,0.022582998,0.016958046,0.013150485,0.010456395,0.008306243,0.00729516,0.006552845,0.005797732,0.005336985,0.005317787,0.005484168,0.00564415,0.005183403,0.005528963,0.005637751,0.005484168,0.005701743,0.005740139,0.005951314,0.00590012,0.006220083,0.005957714,0.006168889,0.005912919,0.006207285,0.006226483,0.005919318,0.005618553,0.005624952,0.00564415,0.005368981,0.005253795,0.004709857,0.004287506,0.004357898,0.00390355,0.003430005,0.003161236,0.002930862,0.002553306,0.001894182,0.001759797,0.001535823,0.001363043,0.001363043,0.001107072,0.000659124,0.000531139,0.000428751,0.00052474,0.000569534,0.000377557,0.000659124,0.000230373,0.000454348,0.000403154,0.000505542,0.000268769,0.000550337,0.000403154,0.000390355,0.000703919,0.000569534,0.000211176,0.000281568,0.000351959,0.000383956,0.000223974,3.2E-05,9.6E-05,0.000556736,0.000383956,0.000422351,0.000377557,0.000243172,0.000249571,0.000358359,0.000390355,0.000281568,0.000159982,0.000166381,0.000166381,0.000159982,0.000191978,0.000204776,0.000211176,0.000217575,0.000211176,0.000198377,0.000185579,0.000179179,0.00017278,0.000153582,0.000147183,0.000127985,0.000115187,0.000102388,8.96E-05,8.32E-05,9.6E-05,0.000108787,0.00017278,0.000179179,0.000287967,0.000140784,0,0.000204776,0.000479945,0.000428751,0.000268769,0.000223974,0.000243172,0.000102388,0.000127985,0.000153582,0.000159982\nSRI-031152.txt,COC(=O)C1CN(CC2=C1C=CC=C2)S(=O)(=O)C1=CC=C(OC2=CC=C(OC)C=C2)C=C1,0.866416414,0.864958321,0.855715221,0.847048079,0.844472555,0.840900501,0.834815557,0.836244902,0.849569093,0.858515884,0.866268231,0.877670666,0.892327141,0.909483301,0.931156111,0.952510292,0.97032522,0.984145178,0.993334234,0.997144901,1.000000001,0.9958551,0.983950714,0.972018983,0.962964976,0.950461924,0.939693463,0.932383259,0.922857907,0.909838978,0.901552882,0.893306349,0.886932561,0.886386682,0.885081811,0.881083519,0.877308846,0.875841658,0.876382491,0.879044362,0.886272809,0.894474477,0.903356578,0.912530742,0.918407173,0.925335544,0.9330715,0.940852758,0.947069432,0.948210842,0.94422563,0.937773777,0.930832004,0.92423456,0.918681603,0.913066742,0.897546285,0.874876199,0.854914233,0.84064536,0.831846135,0.819093407,0.802576386,0.787919779,0.775168523,0.765534227,0.757323954,0.75087355,0.745908575,0.739349608,0.732608992,0.724166335,0.710409298,0.688369931,0.656874973,0.615654674,0.566937696,0.513947681,0.459075913,0.403656869,0.349652502,0.297753573,0.249457344,0.206378464,0.168662824,0.137347244,0.11198243,0.091870478,0.076359217,0.064189038,0.054641015,0.047116246,0.041061008,0.036071746,0.031938987,0.028500314,0.025541598,0.023009541,0.020907382,0.019002986,0.017239626,0.015750119,0.014443906,0.013164394,0.012214019,0.011403296,0.010262159,0.008865074,0.007793124,0.007082593,0.006698922,0.006169387,0.00539265,0.004868112,0.004443124,0.004043697,0.003676985,0.00333435,0.003002059,0.002730615,0.002474551,0.002223485,0.002003651,0.001793169,0.001568614,0.001369688,0.001224434,0.001112736,0.000992617,0.000828739,0.000684443,0.00061411,0.00057364,0.000481569,0.000407666,0.000343647,0.000302144,0.00031643,0.000266012,0.000222745,0.00022495,0.000226746,0.000212781,0.000269541,0.000328405,0.000314658,0.000378267,0.000697436,0.00080329,0.00073495,0.000610937,0.000498613,0.000532143,0.0004155,0.000312482,0.000464169,0.000661157,0.000496923,0.000698532,0.001127883,0.001103341,0.00066732,0.000802172,0.000897733,0.000776301,0.000622554,0.000461261,0.000906289,0.001773958,0.001651204,0.000330854,0,0.000859828,0.001544641,0.001508735,0.001123155,0.000438217,0.000431622,0.001474436,0.002224496,0.001395115\nSRI-1053147-001.txt,CC(=O)Nc1ccc(cc1)S(=O)(=O)N[C@@H](C(O)=O)c1ccccc1,1,0.993373388,0.98161115,0.963001414,0.937820286,0.904852889,0.866363315,0.824008217,0.780383018,0.737365259,0.698268245,0.664638187,0.638186959,0.61858323,0.606765771,0.603065913,0.607759763,0.618196678,0.635149761,0.6562997,0.680045061,0.705170967,0.731346086,0.759012193,0.785905195,0.811583319,0.834732285,0.853960505,0.867964746,0.875690272,0.876375022,0.869135448,0.85673816,0.8383217,0.813217883,0.778615922,0.732732152,0.674246775,0.603728574,0.526429139,0.448472566,0.375568784,0.311666151,0.257758659,0.214172115,0.179923573,0.15399143,0.135111106,0.121438196,0.111570065,0.104915842,0.100260647,0.097389115,0.095699329,0.095428742,0.095903649,0.097648657,0.100183336,0.10298308,0.106180421,0.10889181,0.111189035,0.112757333,0.113005831,0.112072583,0.110509807,0.10846108,0.106566973,0.104490634,0.102927858,0.101558358,0.100586455,0.098813836,0.096295724,0.092374978,0.086609825,0.07921563,0.070247614,0.060743948,0.050643886,0.041350062,0.033690802,0.028124448,0.024722787,0.023993859,0.025435148,0.028361901,0.032459357,0.036849488,0.041858102,0.046861195,0.052134874,0.058120914,0.06473096,0.07246753,0.080944071,0.090320728,0.100973008,0.112889866,0.126071302,0.139528848,0.152285077,0.16360554,0.172700565,0.179139424,0.18394924,0.187417167,0.191591933,0.196131163,0.201890793,0.209119323,0.217457811,0.226978044,0.239176533,0.253031675,0.268537948,0.284237498,0.298109207,0.308524033,0.313753534,0.312731931,0.307204232,0.298517848,0.287976012,0.277632974,0.268565559,0.261281808,0.255754108,0.252219915,0.249596881,0.248818254,0.248542145,0.248509012,0.2486802,0.249409127,0.249983433,0.250292675,0.250690272,0.25086146,0.250485952,0.249900601,0.249182718,0.247989928,0.246432674,0.24439499,0.242164031,0.24020918,0.238795503,0.236194557,0.230451493,0.22336654,0.216635006,0.210980297,0.206418979,0.202531366,0.19883703,0.194894195,0.190465409,0.185313218,0.179470755,0.172595644,0.165107572,0.15617269,0.145349222,0.13324461,0.121857881,0.112321081,0.103640219,0.095252032,0.086786535,0.078459092,0.070164782,0.061605407,0.053128866,0.044933955,0.037180818,0.029433204,0.021691112,0.014131251,0.007095998,0\nSRI-0000455.txt,CN1N=CN(\\N=C\\C2=CC=C(S2)[N+]([O-])=O)C1=O,1,0.99207607,0.964342314,0.952456418,0.916798732,0.908874802,0.873217116,0.85340729,0.833597464,0.793977813,0.782091918,0.738510301,0.70681458,0.718700475,0.679080824,0.663232964,0.639461173,0.607765452,0.591917591,0.5681458,0.548335975,0.540412044,0.516640254,0.488510301,0.475832013,0.458795563,0.426307448,0.413232964,0.400950872,0.383122029,0.360538827,0.359350238,0.350633914,0.332012678,0.330427892,0.316957211,0.312995246,0.297543582,0.29199683,0.275356577,0.291600634,0.280110935,0.279318542,0.25792393,0.257527734,0.262678288,0.25792393,0.263470681,0.251584786,0.257131537,0.241679873,0.249603803,0.25911252,0.281299525,0.251980983,0.261489699,0.270206022,0.275752773,0.27614897,0.290015848,0.305071315,0.308637084,0.332012678,0.335974643,0.356973059,0.368858954,0.398177496,0.40570523,0.426307448,0.44889065,0.466719493,0.471870048,0.490491284,0.513470681,0.536053883,0.560618067,0.567353407,0.587163233,0.604199683,0.62955626,0.632725832,0.670760697,0.702456418,0.708399366,0.717511886,0.728209192,0.75,0.762282092,0.755942948,0.780507132,0.795562599,0.798335975,0.820919176,0.824484945,0.83518225,0.843502377,0.857765452,0.843502377,0.865293185,0.890649762,0.880744849,0.902139461,0.912044374,0.893423138,0.894611727,0.91481775,0.903328051,0.900158479,0.898573693,0.88866878,0.891442155,0.898969889,0.863312203,0.872820919,0.8522187,0.848652932,0.838748019,0.797147385,0.830427892,0.812995246,0.795958796,0.769809826,0.758716323,0.760301109,0.734548336,0.70681458,0.695721078,0.666402536,0.650554675,0.614104596,0.598652932,0.596275753,0.570126783,0.543977813,0.524167987,0.502773376,0.474247227,0.457210777,0.435816165,0.420760697,0.406497623,0.381933439,0.37163233,0.362123613,0.335578447,0.326069731,0.31933439,0.307448494,0.290808241,0.271394612,0.249603803,0.230190174,0.215530903,0.206022187,0.200475436,0.196909667,0.192947702,0.18858954,0.183438986,0.177892235,0.171156894,0.16362916,0.154120444,0.141045959,0.123613312,0.105388273,0.097860539,0.091521395,0.066561014,0.06022187,0.064580032,0.054675119,0.033280507,0.0340729,0.030903328,0.017432647,0.042393027,0.027337559,0.00911252,0.005942948,0\nSRI-004857.txt,CCOC(=O)C1=C(C)NC2=C(Cl)C=CC=C2C1=O,0.876785569,0.920490966,0.953255688,0.971667877,0.985015209,0.99581603,1,0.996388072,0.986289436,0.966473849,0.936254667,0.896763347,0.851416606,0.804296436,0.75922649,0.719255393,0.685474785,0.658877243,0.639246186,0.628642521,0.621576001,0.616092552,0.613985999,0.614009308,0.615305873,0.617051136,0.618409858,0.618381693,0.616046906,0.610431372,0.600859132,0.587452556,0.570955592,0.557089635,0.541656145,0.518807471,0.492354639,0.461764455,0.427366158,0.390249445,0.351714767,0.313301491,0.276228483,0.241554362,0.210263936,0.183214781,0.160731282,0.146879892,0.135946016,0.12524523,0.118958592,0.116754917,0.118197163,0.122700662,0.129667147,0.138620727,0.149277809,0.161282929,0.174484579,0.188773984,0.200148789,0.21207427,0.228605227,0.24578398,0.263471647,0.281503121,0.299710385,0.317991461,0.336244372,0.354548757,0.372945406,0.391429465,0.410007731,0.41936242,0.438167949,0.456890925,0.475144807,0.492921825,0.509544075,0.524672605,0.537992743,0.549027625,0.55780056,0.564388274,0.568888859,0.570686567,0.573181605,0.574640361,0.575616427,0.576376884,0.577399567,0.578807821,0.580273376,0.581758355,0.582419749,0.581727277,0.579901403,0.576644937,0.569801796,0.559693447,0.546037271,0.529424733,0.511064989,0.492350754,0.474498953,0.458455544,0.443959271,0.433792651,0.423518226,0.408668433,0.391196375,0.368904204,0.339084188,0.301121553,0.258288302,0.214512977,0.172338206,0.133912304,0.108208274,0.086400737,0.062273951,0.043924891,0.030499862,0.021084958,0.014638069,0.010330755,0.007478313,0.005562117,0.004237387,0.003461391,0.00302726,0.002371694,0.001998749,0.001700588,0.001433505,0.00118002,0.001031424,0.000918764,0.000790565,0.000733263,0.000688588,0.000576898,0.000529309,0.000506971,0.000423447,0.000356434,0.000404994,0.000295248,0.000333125,0.000378772,0.000221436,0.000328269,0.000274852,0.000354491,0.000301075,0.000222407,0.000299133,0.000324384,0.000242802,0.000212695,0.000351578,0.000255428,0.000270967,0.000146653,0.000303989,0.000153451,0.000256399,0.000177731,0.000136941,0.000164134,8.35E-05,0.000123344,0.000132084,0.000148595,2.43E-05,0.00014471,8.94E-05,0.000100035,0.000110718,0,0.000108775\nSRI-1053157-001.txt,CC(C)[C@H](NC(=O)CCc1ccc2n(C)c(=O)c(=O)[nH]c2c1)C(O)=O,1,0.972627041,0.925829137,0.864788392,0.795831426,0.723440918,0.650637113,0.581012513,0.515648049,0.455942571,0.4030088,0.358118419,0.320285874,0.290019838,0.26668447,0.25012081,0.237880869,0.229042678,0.222398138,0.217247825,0.213242027,0.21034895,0.207583041,0.204499212,0.200493413,0.194281245,0.185624269,0.174166412,0.160432245,0.145359632,0.129511293,0.113507172,0.097983112,0.083002696,0.069373442,0.057495931,0.047529122,0.039256829,0.032707666,0.027598683,0.023631034,0.020718882,0.018337657,0.016487359,0.015120301,0.013874053,0.012917112,0.012265375,0.011585025,0.011146294,0.010755252,0.010669414,0.01048502,0.010450048,0.010529528,0.011063635,0.011610458,0.012341676,0.013279541,0.01428417,0.015358742,0.01664632,0.018270894,0.019749224,0.021386515,0.02324635,0.025236533,0.027312554,0.02952846,0.031674424,0.033950735,0.036284272,0.038697289,0.041345567,0.043898469,0.046635765,0.049271326,0.051786078,0.054183199,0.056745638,0.058942469,0.060907218,0.06293873,0.064906659,0.066645684,0.068346559,0.070266799,0.071894552,0.073449184,0.074838496,0.075843125,0.076431278,0.076587059,0.076447174,0.075951218,0.075070578,0.073872018,0.072628949,0.071150618,0.069519686,0.067996846,0.066095681,0.063930642,0.061409533,0.058640445,0.055082914,0.05133781,0.047201663,0.042823897,0.038280813,0.033534259,0.029035683,0.024877283,0.021049519,0.017383895,0.014144285,0.011429244,0.009194262,0.007445699,0.005852917,0.004495397,0.003452617,0.002797701,0.002187293,0.001694517,0.001456076,0.001125439,0.000925149,0.000769368,0.000648558,0.000575436,0.00052139,0.000613587,0.000333817,0.000311562,0.000454626,0.000486418,0.000282949,0.000257516,0.000416476,0.000273412,0.000178036,0.000257516,0.000247978,0.00020029,0.000206648,0.00020029,0.000162139,0.000136706,0.000101735,6.68E-05,4.13E-05,1.59E-05,0,0,9.54E-06,2.23E-05,3.82E-05,4.77E-05,5.4E-05,5.72E-05,6.04E-05,5.72E-05,5.4E-05,7.95E-05,0.00012081,0.000162139,0.000168498,0.00015896,7.63E-05,1.59E-05,8.58E-05,4.45E-05,0.000108093,0.000136706,9.54E-05,0.000257516,0.000292487,0.00015896,5.72E-05,0.000174856\nSRI-0000325.txt,COC(=O)NCC1=NC2=CC(C)=CC=C2N1,1,0.953180212,0.902650177,0.848586572,0.790282686,0.7295053,0.667667845,0.607597173,0.551060071,0.499469965,0.456360424,0.421731449,0.39664311,0.378621908,0.365194346,0.356360424,0.349646643,0.343780919,0.33934629,0.335724382,0.332491166,0.32975265,0.326625442,0.323515901,0.319734982,0.315353357,0.310865724,0.30540636,0.299540636,0.295424028,0.290848057,0.287756184,0.285335689,0.283551237,0.283091873,0.284222615,0.286943463,0.290671378,0.296272085,0.304734982,0.315512367,0.329399293,0.34630742,0.365724382,0.388303887,0.414858657,0.444487633,0.474293286,0.501342756,0.525512367,0.550671378,0.581537102,0.617261484,0.655883392,0.689469965,0.71655477,0.734681979,0.734628975,0.710759717,0.670335689,0.636219081,0.631749117,0.660477032,0.696042403,0.694734982,0.632120141,0.522773852,0.397349823,0.284787986,0.196095406,0.132084806,0.087720848,0.059045936,0.040106007,0.028498233,0.020724382,0.016060071,0.012314488,0.00959364,0.008038869,0.006431095,0.005159011,0.004452297,0.003939929,0.003674912,0.003321555,0.002720848,0.001819788,0.001713781,0.001943463,0.001537102,0.001272085,0.001077739,0.001166078,0.000918728,0.001731449,0.000971731,0.000883392,0.001660777,0.001378092,0.000848057,0.001042403,0.000441696,0.001024735,0.001130742,0.00114841,0.000812721,0.000777385,0.000989399,0.000795053,0.000971731,0.00065371,0.000865724,0.000706714,0.000883392,0.000865724,0.000565371,0.001572438,0.000512367,0.000459364,0.000547703,0.000706714,0.000742049,0.000583039,0.001095406,8.83E-05,0.000848057,0.000459364,0.000424028,0.000388693,0.000212014,0.000159011,0.000759717,0,0.000989399,0.000388693,0.000795053,0.000971731,0.000565371,0,0.00024735,0,0.0004947,0.000671378,0.00040636,0.000618375,0.000424028,0.000300353,0.000141343,0.000176678,0.000194346,0.000141343,0.000123675,0.000141343,0.000141343,0.000123675,0.000106007,0.000123675,0.000141343,0.000159011,0.000212014,0.000265018,0.000300353,0.000318021,0.00024735,0.000371025,0.000441696,0,0.000265018,0.000636042,0,0.000141343,0.000159011,0.000388693,0.00024735,0.000636042,0,0.000353357,1.77E-05,0,0.000265018\nSRI-031144.txt,COC1=CC=C(OC2=CC=C(C=C2)S(=O)(=O)N2C(C)CC(=O)NC3=CC=CC=C23)C=C1,0.872681598,0.870652714,0.862237849,0.853455662,0.849193858,0.846201416,0.841418741,0.842792726,0.8559225,0.864953271,0.872802403,0.883808049,0.898202689,0.915740569,0.937141475,0.958396748,0.975869231,0.988082302,0.995232696,0.998614523,1,0.995060136,0.98391496,0.972835252,0.964479772,0.952789802,0.941951306,0.934789434,0.926732208,0.914611293,0.906484642,0.898988638,0.892483962,0.890530615,0.889715861,0.886062087,0.882661774,0.881733699,0.882511855,0.885263768,0.892565695,0.901006773,0.909858626,0.918857017,0.925221358,0.932232512,0.940349133,0.948663824,0.954827377,0.955827003,0.952792353,0.947655838,0.941581772,0.935601471,0.931099248,0.927052542,0.913676263,0.893160377,0.874958083,0.862965955,0.858402104,0.849895189,0.837240703,0.827955289,0.823195824,0.822534095,0.822378657,0.825601909,0.833402454,0.840162096,0.850929644,0.864164428,0.878219276,0.890969978,0.897143399,0.896318214,0.890206376,0.877620219,0.856390848,0.826873144,0.789083328,0.745092678,0.698734162,0.652774947,0.607517898,0.564412985,0.523437918,0.484910022,0.44903548,0.414598768,0.382305011,0.352417886,0.324511263,0.298347722,0.274292321,0.252063674,0.231305959,0.212119771,0.194636085,0.178378132,0.163415519,0.149625023,0.136885069,0.125231664,0.114628684,0.105330089,0.096786682,0.088475943,0.080595739,0.073397195,0.066976632,0.060969446,0.05526059,0.050216656,0.045700886,0.041513826,0.037666515,0.03421449,0.031073093,0.028191678,0.025596445,0.023261283,0.021124131,0.019160038,0.017328469,0.015704742,0.014290419,0.012982977,0.011721237,0.010523114,0.00946742,0.008569122,0.007762035,0.007001652,0.006279963,0.005661092,0.005109661,0.004541839,0.004081929,0.00367762,0.003301284,0.002980858,0.002710373,0.002433749,0.002191744,0.001996488,0.001903339,0.001977097,0.00192285,0.001701879,0.001429062,0.001214915,0.001087246,0.000898064,0.000782889,0.000853063,0.000923015,0.000776968,0.000937692,0.001285332,0.001220026,0.000750236,0.000885739,0.000933278,0.000754755,0.000608544,0.000469169,0.000863974,0.001673407,0.001509343,0.000201949,2.17E-11,0.000837355,0.001449913,0.001376041,0.000979306,0.000419303,0.000453167,0.001442468,0.002136848,0.001291124\nSRI-1053019-001.txt,CCOC(=O)C(Cc1c[nH]c2ccccc12)NS(=O)(=O)c1ccc(C)cc1,0.99007096,1,0.999669032,0.988416119,0.96491739,0.928841877,0.882506355,0.826903728,0.766005613,0.701797818,0.638913895,0.580994493,0.527576255,0.479155634,0.435865018,0.396579115,0.360172633,0.326149121,0.293747352,0.262239197,0.232584463,0.204716956,0.179331709,0.156958272,0.138390966,0.123927664,0.112443074,0.103308356,0.096291834,0.091426605,0.088183118,0.08619731,0.085535374,0.085747193,0.086855936,0.088596828,0.091135353,0.094210046,0.097486629,0.100428935,0.10378495,0.107359405,0.11144024,0.115904999,0.120379687,0.124410877,0.128034977,0.131453876,0.134740389,0.137947469,0.140737529,0.143137047,0.145162571,0.147009373,0.148366342,0.149650498,0.150064208,0.149849079,0.14983584,0.150233001,0.151030634,0.151626377,0.151742216,0.151083589,0.148545065,0.14393468,0.137947469,0.131913922,0.128200461,0.127144673,0.127260512,0.125556026,0.118969763,0.107465315,0.093114541,0.078638,0.065578003,0.054232419,0.044892502,0.037154469,0.030502012,0.024878866,0.020086449,0.015893084,0.012388133,0.009564976,0.007225032,0.005676101,0.004418423,0.003534738,0.002806609,0.002217486,0.00186004,0.001562169,0.001251059,0.00113522,0.001012762,0.000810872,0.000665246,0.000628839,0.000642078,0.00062222,0.000562646,0.000423639,0.000503071,0.000489833,0.000433568,0.00041371,0.000370684,0.000291252,0.000340897,0.000218439,0.000264774,0.000241607,0.00031111,6.29E-05,0.000370684,0.0002052,0.000400471,0.000407091,0.000380613,0.000251536,0.000294562,0.000195271,0.000185342,0.000234987,0.000175413,0.0002052,0.000254845,7.94E-05,0.000334278,0.00031442,0.000284632,0.000112529,0.000258155,0.000231678,0.000165484,0.000158865,0.000129078,0.000274703,0.00020851,0.000178723,0.000238297,0.000264774,0.000132387,0.000119148,0.000132387,0.000129078,0.000115839,9.93E-05,0.000109219,0.000112529,9.93E-05,8.61E-05,6.95E-05,5.63E-05,4.3E-05,3.97E-05,4.3E-05,4.96E-05,5.96E-05,7.28E-05,8.27E-05,0.00010591,0.000119148,0.000112529,0.000119148,0.000231678,0.000221749,0.000125768,0,0.000152245,0.000287942,4.63E-05,9.27E-05,0.000215129,0.000119148,0.00020851,0.000148936,9.27E-05,8.94E-05\nSRI-1053161-001.txt,CSCC[C@H](NS(=O)(=O)c1ccc(NC(C)=O)cc1)C(O)=O,0.205206976,0.180796045,0.164246261,0.154109518,0.14842053,0.145627754,0.146351807,0.1497652,0.15514388,0.162487846,0.170866174,0.181933842,0.194759925,0.209034113,0.22496328,0.24296117,0.261993421,0.283094396,0.305953785,0.330571588,0.356740934,0.384668694,0.41404456,0.445385713,0.478485281,0.512308902,0.54749788,0.583866029,0.620844453,0.65869174,0.696083907,0.733558824,0.769875256,0.805291793,0.839280912,0.871159933,0.900122055,0.926601709,0.949254225,0.967800327,0.983057159,0.993576615,0.999586255,1,0.995469497,0.984246675,0.965855727,0.941889572,0.913579098,0.881896605,0.847793707,0.812004799,0.775347028,0.738740975,0.702062517,0.666180517,0.630857072,0.595202631,0.55757256,0.516870436,0.472113614,0.424450237,0.375028445,0.325234283,0.277374377,0.232162436,0.19068454,0.153116531,0.120896171,0.093320094,0.071122696,0.053445458,0.039595358,0.030141294,0.022693891,0.016880779,0.013250171,0.010653923,0.008388672,0.006909535,0.005668301,0.004437411,0.003816794,0.003403049,0.002813463,0.002554873,0.00197563,0.001954943,0.001696353,0.001355014,0.001137798,0.001168828,0.001034361,0.001261921,0.001241234,0.001044705,0.000703366,0.000610273,0.000393057,0.000672335,0.000920582,0.000755084,0.000796458,0.000848176,0.000837833,0.000806802,0.000641304,0.0009723,0.000682679,0.00123089,0.000579242,0.000920582,0.000734397,0.000827489,0.000837833,0.000889551,0.001106767,0.001034361,0.0009723,0.000558555,0.000299965,0.000796458,0.000713709,0.000910238,0.000796458,0.000517181,0.000527524,0.000889551,0.000796458,0.000537868,0.000817146,0.000693022,0.000951613,0.000651648,0.000579242,0.001096423,0.001220547,0.000589586,0.000930925,0.000765428,0.000651648,0.000548212,0.000403401,0.000237903,0.000496494,0.000630961,0.000630961,0.000517181,0.000382714,0.000237903,0.000124123,6.21E-05,0,2.07E-05,3.1E-05,4.14E-05,0.000103436,0.000144811,0.000155154,0.000175841,0.000186185,0.000186185,0.000186185,0.000175841,0.000155154,0.000206872,0.000424088,0.000382714,0.000268934,0.000403401,0.000175841,0.000589586,0.000961956,0.000682679,0.000455119,0.000310308,0.000506837,0.000506837,0.000279278,0.000289621,0.000579242\nSRI-1053009-001.txt,CC(C)[C@@H](C(=O)NCCc1c[nH]c2ccccc12)n1nnc2ccccc2c1=O,1,1,1,0.987634475,0.97526895,0.938172375,0.901075801,0.851613701,0.802151601,0.727958452,0.666130827,0.616668728,0.567206628,0.504142451,0.449734141,0.400272042,0.364412019,0.335971312,0.31000371,0.28527266,0.26548782,0.259305057,0.259305057,0.258068505,0.259305057,0.26548782,0.274143687,0.28032645,0.293928527,0.3050575,0.322369235,0.338444417,0.353901323,0.370594782,0.37949796,0.387906517,0.396562384,0.39953011,0.402745147,0.398417213,0.406083838,0.410411772,0.404352665,0.388401138,0.368245332,0.3451218,0.316186472,0.286632868,0.257573884,0.231606282,0.214170892,0.201558056,0.192902189,0.181278595,0.17620873,0.168789415,0.160751824,0.15902065,0.157289477,0.155063682,0.153579819,0.15147768,0.156794856,0.156794856,0.152095956,0.147149747,0.147273402,0.149622851,0.14912823,0.142698158,0.141461605,0.145418573,0.146036849,0.139854087,0.132434772,0.127117596,0.126993941,0.119574626,0.120934834,0.114875726,0.111784345,0.111908,0.10646717,0.101273649,0.10176827,0.102633857,0.102633857,0.100160752,0.101026339,0.104859651,0.105477928,0.111784345,0.113020898,0.115123037,0.120563868,0.126993941,0.132187461,0.130703598,0.135155187,0.142698158,0.14628416,0.15407444,0.158155064,0.158155064,0.160751824,0.167676518,0.167429207,0.175095833,0.178063559,0.17385928,0.17385928,0.173982936,0.169036726,0.174477557,0.167800173,0.171880796,0.172251762,0.163595895,0.160628169,0.149746507,0.134907877,0.12390256,0.113391863,0.09657475,0.079015704,0.068752319,0.056757759,0.049833065,0.043526648,0.032768641,0.018795598,0.017064424,0.014220354,0.015456906,0.011499938,0.009768765,0.012118214,0.007048349,0.009026833,0.007790281,0.009521454,0.010881662,0.006430073,0.005069865,0.006801039,0.007172004,0.008161246,0.006924694,0.007172004,0.006677383,0.005688141,0.006059107,0.005811797,0.005564486,0.005069865,0.005564486,0.006182762,0.006553728,0.006553728,0.006430073,0.006924694,0.007419315,0.00754297,0.00729566,0.006059107,0.003956968,0.004080623,0.010881662,0.00729566,0.008532212,0.006306418,0,0.008532212,0.010387041,0.009274144,0.009150488,0.008284902,0.007666625,0.008161246,0.005688141,0.003338692\nSRI-1053171-001.txt,O=c1[nH]nc(SCc2cccc(Oc3ccccc3)c2)c(=S)[nH]1,1,0.971996553,0.941531265,0.906450025,0.867676022,0.826132447,0.782742491,0.739352536,0.696885771,0.655957656,0.617183653,0.582102413,0.550098474,0.521725751,0.496891925,0.474796898,0.455871492,0.43851551,0.423621369,0.410327425,0.398110537,0.387001477,0.376169375,0.366075825,0.356690054,0.347181192,0.338410881,0.329579025,0.321116445,0.313269325,0.305760709,0.299175283,0.293359183,0.287866199,0.282976366,0.278098843,0.272925899,0.26750677,0.261386017,0.254634417,0.24739968,0.239724889,0.231828533,0.223799852,0.215451132,0.207108567,0.198605982,0.190023387,0.181634663,0.173421344,0.165666544,0.158819547,0.152455687,0.146864229,0.142045175,0.138053914,0.1350597,0.132908666,0.131622354,0.130717627,0.129138971,0.127351059,0.125313885,0.123732152,0.122584318,0.12143033,0.120273264,0.119048498,0.117783727,0.116749754,0.11657127,0.117399065,0.119070039,0.122036558,0.125544682,0.129677499,0.134256524,0.139087888,0.144328533,0.149686115,0.154991384,0.160475135,0.165765017,0.17111029,0.176366322,0.181434638,0.186515263,0.191300468,0.195925652,0.200372354,0.204403619,0.208385647,0.212004554,0.215389586,0.218620753,0.221414943,0.224039882,0.226270926,0.228314254,0.230114476,0.231628508,0.232859429,0.233782619,0.234410389,0.234761201,0.234579641,0.23435192,0.233825702,0.233197932,0.232237814,0.230834564,0.229372846,0.227855736,0.226280158,0.224544559,0.222550468,0.220544067,0.218694609,0.216442024,0.21427868,0.211979936,0.209475012,0.207080871,0.204422083,0.201686361,0.198762925,0.195777942,0.192759109,0.189989537,0.1869984,0.183979567,0.181228459,0.178308099,0.175249261,0.172110414,0.169186977,0.166220458,0.163158543,0.159890448,0.156939316,0.153695839,0.150532373,0.147304284,0.14397772,0.140337272,0.136961472,0.134573486,0.133114845,0.130773018,0.125689316,0.119500862,0.113724766,0.10907804,0.105483752,0.102609552,0.099941531,0.097150419,0.094063885,0.090564993,0.086561423,0.081988552,0.076806376,0.070657927,0.063472427,0.055686854,0.048704456,0.043208395,0.038586288,0.034182669,0.030179099,0.026344781,0.022802806,0.019100812,0.015980428,0.012936977,0.01040128,0.007887125,0.005502216,0.003483506,0.00171098,0\nSRI-1053207-001.txt,OC(=O)C[C@H](NC(=O)CCn1nnc2ccccc2c1=O)C(O)=O,0.970755234,0.97919739,0.987425819,0.994870589,0.999251961,1,0.994977452,0.984113075,0.967228765,0.945820599,0.921206551,0.894384008,0.863251334,0.825635655,0.778972266,0.722548747,0.658680459,0.591855636,0.526491269,0.466541281,0.414317468,0.370856398,0.335531143,0.307201835,0.284871088,0.266665242,0.251725833,0.238802568,0.227026295,0.216008748,0.206074077,0.197133229,0.189328688,0.182692513,0.176868495,0.171653594,0.16650281,0.161736733,0.157038335,0.152717519,0.149301474,0.14694337,0.146166834,0.14687569,0.149657683,0.153540362,0.158904871,0.165441307,0.172494247,0.180562383,0.188822871,0.197079798,0.205489894,0.213921363,0.222495316,0.230638255,0.238638711,0.246493122,0.253880898,0.260677367,0.266675928,0.271623672,0.275495665,0.278177919,0.279688246,0.279983899,0.279410403,0.277910763,0.275883933,0.273166058,0.269960176,0.26626985,0.261884916,0.257207891,0.252424003,0.247625866,0.243144756,0.239194398,0.235657241,0.232447798,0.229477014,0.226125086,0.221971689,0.216820905,0.210188292,0.202333882,0.193617446,0.184555487,0.175814116,0.167995327,0.161444642,0.15651827,0.153625852,0.152094153,0.150330918,0.147826768,0.142946704,0.134835823,0.123665106,0.110567299,0.09634387,0.08206701,0.068570248,0.056402146,0.046143324,0.03743045,0.030071171,0.024111793,0.01945614,0.015837056,0.012837775,0.010422678,0.008641632,0.007092123,0.005955816,0.0050083,0.004221078,0.00344098,0.002774869,0.002236993,0.001998333,0.001674183,0.001446209,0.001239608,0.001093562,0.000894085,0.000837091,0.000673235,0.000648301,0.000523627,0.000673235,0.000509379,0.000552124,0.000270719,0.000313464,0.000402516,0.000356209,0.000274281,0.000284967,0.000252908,0.000199477,0.000313464,0.000292091,0.000274281,0.000210163,0.000242222,0.000242222,0.000217288,0.000156732,0.000103301,5.34E-05,1.42E-05,0,0,0,7.12E-06,1.42E-05,1.78E-05,2.49E-05,2.85E-05,3.21E-05,3.21E-05,2.85E-05,3.21E-05,5.34E-05,7.48E-05,0.000178105,0.000206601,9.97E-05,7.12E-06,6.06E-05,0.000128235,0.000188791,0.000135359,0.000124673,0.000203039,0.000131797,1.42E-05,9.62E-05,0.00023866,4.99E-05\nSRI-1052910-001.txt,COC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)C1CN(C(=O)C1)c1ccccc1F,0.994238683,1,0.995884774,0.980452675,0.952331962,0.910493827,0.855967078,0.790603567,0.719341564,0.645953361,0.576474623,0.515603567,0.464471879,0.422565158,0.390226337,0.366392318,0.349279835,0.337105624,0.328360768,0.322222222,0.318381344,0.315432099,0.312962963,0.310768176,0.30936214,0.307304527,0.304698217,0.301440329,0.298010974,0.293587106,0.28845679,0.282740055,0.276546639,0.26978738,0.262791495,0.255226337,0.247801783,0.240377229,0.232726337,0.225253772,0.218360768,0.211546639,0.2056893,0.200555556,0.196124829,0.192403978,0.18952332,0.187462277,0.18616941,0.185288066,0.184759945,0.184482167,0.184423868,0.184591907,0.184221536,0.183539095,0.182743484,0.181875857,0.181371742,0.181478052,0.181663237,0.181286008,0.179938272,0.177482853,0.17329561,0.167102195,0.159221536,0.151556927,0.145723594,0.142331962,0.139773663,0.135699588,0.126817558,0.113151578,0.097349108,0.081697531,0.067530864,0.055332647,0.045360082,0.037054184,0.030017147,0.024139232,0.01941701,0.015401235,0.012331962,0.009633059,0.007568587,0.006083676,0.004684499,0.0035631,0.002832647,0.002160494,0.001796982,0.001536351,0.001241427,0.000991084,0.000723594,0.000713306,0.000493827,0.000462963,0.000435528,0.000363512,0.000363512,0.00026406,0.000366941,0.0003738,0.000236626,0.000140604,0.000137174,0.00016118,0.000188615,0.000250343,0.000236626,0,0.000120027,9.95E-05,0.00021262,0.000226337,0.000216049,0,0.00010631,8.57E-05,0.00010631,7.89E-05,2.74E-05,0,0,0,3.43E-05,0,8.57E-05,4.12E-05,0.000332647,0.000253772,0,0,0,1.03E-05,0,0.000126886,0.000240055,0.000120027,0.000168038,6.52E-05,5.49E-05,3.77E-05,4.8E-05,7.89E-05,0.000113169,0.000126886,0.000133745,0.000126886,0.000102881,7.2E-05,3.43E-05,0,0,0,0,0,0,0,0,0,0,0,7.54E-05,4.8E-05,2.4E-05,8.57E-05,4.46E-05,5.14E-05,0,0,0,8.92E-05,0,0,0,0,0\nSRI-1052868-001.txt,COc1cccc(c1)-c1nc(CC(=O)N[C@@H](Cc2c[nH]c3ccccc23)C(O)=O)cs1,0.996348001,1,0.993224798,0.979509145,0.955250616,0.920383113,0.873667268,0.817680964,0.753713141,0.6852836,0.617812502,0.554819647,0.497974049,0.447672305,0.403650016,0.36569236,0.332725218,0.303988446,0.27868885,0.25604976,0.235988552,0.218224302,0.20221169,0.188082915,0.175606628,0.164435807,0.154967049,0.147018581,0.140573876,0.135583361,0.132002419,0.129814525,0.12910726,0.129627794,0.1315579,0.134616656,0.138885033,0.144181258,0.150412792,0.157535016,0.165595854,0.174240021,0.183667466,0.193707985,0.204191371,0.215330795,0.22670983,0.238523469,0.250233001,0.262119349,0.27401396,0.285870564,0.297520607,0.308911208,0.319728397,0.329740824,0.339373178,0.348790709,0.358109091,0.367612551,0.377091224,0.385875852,0.393721866,0.400026109,0.404466345,0.407082234,0.40770357,0.407944833,0.409296569,0.412047962,0.415313279,0.41621719,0.413079115,0.405423136,0.394967843,0.383823461,0.37344914,0.364477781,0.356719348,0.349879699,0.343459782,0.337300958,0.331051247,0.324745352,0.318188278,0.311429601,0.304454448,0.297770132,0.29134691,0.284892291,0.278787999,0.272533331,0.266427386,0.259919887,0.253321502,0.246232327,0.238825874,0.231072399,0.223171852,0.214825134,0.206450323,0.197583071,0.188851322,0.179556076,0.170103842,0.160099678,0.149669172,0.138752834,0.127226728,0.115465969,0.103282172,0.091202483,0.079411979,0.068163491,0.057595828,0.048221262,0.03989272,0.03258046,0.026398501,0.021378241,0.017169354,0.013781753,0.01103036,0.008809415,0.007067693,0.00563168,0.004448499,0.003523105,0.003014139,0.002485342,0.002009426,0.001715283,0.001417835,0.001212926,0.001052635,0.000912174,0.000803109,0.00075684,0.000707265,0.000613073,0.000538711,0.000475917,0.000466002,0.000434604,0.000373462,0.000361895,0.0003652,0.00035859,0.000333803,0.000304058,0.000277618,0.000252831,0.000233001,0.000223086,0.000216476,0.000211519,0.000209866,0.000206561,0.000204909,0.000198299,0.000191689,0.000180121,0.000166901,0.000163596,0.000155334,0.000137157,0.000132199,0.000166901,0.000148724,0.000163596,9.91E-05,0.000118979,7.6E-05,0.000163596,0.000109064,0.000107412,8.1E-05,8.76E-05,9.25E-05,0,5.29E-05\nSRI-0000682.txt,CCOC(=O)N[C@@H]1CC[C@H]1NC(=O)OCC,0.392127176,0.339137017,0.244511734,0.183951552,0.115821347,0.130961393,0.165026495,0.168811506,0.187736563,0.221801665,0.252081756,0.301286904,0.354277063,0.399697199,0.452687358,0.505677517,0.562452687,0.623012869,0.676003028,0.744133232,0.800908403,0.842543528,0.891748675,0.929598789,0.963663891,0.998485995,1,0.986373959,0.970476911,0.926192279,0.901589705,0.879258138,0.827403482,0.756245269,0.649129447,0.515518547,0.392884179,0.272520818,0.20325511,0.113550341,0.08667676,0.073807721,0.029144587,0.014383043,0.014761544,0.037093111,0.025359576,0.014004542,0.018546556,0.019682059,0.01324754,0.031415594,0.024224073,0.022710068,0.02990159,0.012869039,0.018168055,0.01665405,0.017032551,0.015518547,0.022710068,0.034065102,0.021953066,0.04012112,0.039742619,0.03671461,0.021953066,0.035957608,0.039364118,0.047691143,0.032172597,0.055639667,0.063966692,0.069644209,0.062831188,0.095382286,0.084784254,0.076835731,0.072672218,0.089326268,0.087433762,0.097653293,0.091218774,0.101816805,0.105223316,0.105601817,0.105980318,0.096896291,0.087433762,0.107872824,0.093111279,0.0999243,0.091975776,0.078728236,0.079106737,0.078728236,0.075321726,0.076835731,0.068130204,0.059424678,0.069265708,0.052233157,0.036336109,0.04012112,0.039364118,0.051854656,0.046177139,0.0333081,0.019682059,0.025359576,0.018168055,0.015140045,0.020439061,0.026116578,0.014004542,0.011733535,0.015897048,0.007191522,0.022710068,0.024602574,0.016275549,0.032172597,0.023845572,0.023845572,0.012490537,0.012490537,0.018925057,0.027252082,0.015897048,0.00681302,0.028766086,0.044663134,0.020439061,0,0.015140045,0.040499621,0.015518547,0.01324754,0.02006056,0.014761544,0.018546556,0.024224073,0.027252082,0.015897048,0.015140045,0.028387585,0.030280091,0.030658592,0.029523089,0.027252082,0.024224073,0.022331567,0.019682059,0.017411052,0.015140045,0.014383043,0.014004542,0.013626041,0.01324754,0.012869039,0.012869039,0.013626041,0.014761544,0.017032551,0.019682059,0.02006056,0.017032551,0.014761544,0.020439061,0.021574565,0.035579107,0.042392127,0.023088569,0.009084027,0.018168055,0.029144587,0.02990159,0.026495079,0.017032551,0.026116578,0.017789553\nSRI-0000053.txt,CCN(CC)C(=O)N1CCN(CC1)C1=CC=CC(Cl)=C1,1,0.921815596,0.847927039,0.779623082,0.717762895,0.662346477,0.613373829,0.570415365,0.533900671,0.503400162,0.478484254,0.45872336,0.443687898,0.432518698,0.424313631,0.419717076,0.418213529,0.418771989,0.420833996,0.425430551,0.430886276,0.438575841,0.448370371,0.459754364,0.473758823,0.488966119,0.506278379,0.524621643,0.543609284,0.563198344,0.582400777,0.600572207,0.617326007,0.631498005,0.643771238,0.652826882,0.65807211,0.659717419,0.656723214,0.649269921,0.637353243,0.620771276,0.599695854,0.573895001,0.544605921,0.512030518,0.47674014,0.440139529,0.402340377,0.364545521,0.328357311,0.294003428,0.262196982,0.233363261,0.207837342,0.185670775,0.166481229,0.150126942,0.136852777,0.126160415,0.117611681,0.111039036,0.106042967,0.10245164,0.099298488,0.096755347,0.095586877,0.095479481,0.095247505,0.095268984,0.095384972,0.095122926,0.095135813,0.09476637,0.094083331,0.093232753,0.092403655,0.090943067,0.08902712,0.087308781,0.085465863,0.08314181,0.080590077,0.077857919,0.075104282,0.072002681,0.068939742,0.065773703,0.062410056,0.058853095,0.055287542,0.051893824,0.048122071,0.044552222,0.041119841,0.037756194,0.034560084,0.031776375,0.029155909,0.02644523,0.024073923,0.021672545,0.019438705,0.017492686,0.015581035,0.013781075,0.012062737,0.010666586,0.009205999,0.008179291,0.007178359,0.006306302,0.005434246,0.004618035,0.003896333,0.003419494,0.003041459,0.002508774,0.002242432,0.002044823,0.00207919,0.001825735,0.00152073,0.00139615,0.001464884,0.001237204,0.001237204,0.001159879,0.001202837,0.001280162,0.001129808,0.000936495,0.000854873,0.000781844,0.000768956,0.000704519,0.000652969,0.00066156,0.000799027,0.000614306,0.000601418,0.000618602,0.000528389,0.000390922,0.00050691,0.000674448,0.000665856,0.000459656,0.000219088,0.000133171,8.59E-05,4.73E-05,8.16E-05,0.000137467,0.000193313,0.000231976,0.000249159,0.000257751,0.000274934,0.00027923,0.000274934,0.000266342,0.000257751,0.000240567,0.000193313,0.000180426,0.000133171,0.000111692,0.000502614,0.000369443,0,0.000210496,0.000335076,0.000292118,0.000266342,0.000210496,0.000283526,0.000262047,0.000249159,0.000322188,0.000317893\nSRI-0000709.txt,OC(=O)C(=C\\C1=CC=[Cl]C=[Cl]1)\\C1=CN=CC=C1,0.643583227,0.608640407,0.545108005,0.500635324,0.462515883,0.465692503,0.484752224,0.475222363,0.481575604,0.510165184,0.526048285,0.538754765,0.567344346,0.602287166,0.624523507,0.678526048,0.700762389,0.73252859,0.773824651,0.818297332,0.856416773,0.891359593,0.923125794,0.951715375,0.977128335,1,0.994917408,0.983799238,0.968551461,0.928208386,0.907878018,0.891359593,0.852604828,0.793519695,0.697903431,0.595298602,0.491423126,0.398983482,0.330368488,0.260800508,0.240152478,0.229669632,0.205209657,0.195044473,0.189644219,0.197903431,0.189008895,0.180114358,0.188691233,0.192503177,0.186149936,0.18519695,0.181385006,0.176937738,0.1772554,0.161689962,0.15343075,0.158831004,0.15660737,0.163595934,0.164231258,0.157878018,0.15660737,0.181385006,0.176937738,0.178208386,0.166772554,0.180749682,0.187102922,0.195997459,0.181067344,0.179479034,0.200127065,0.200444727,0.197268107,0.212515883,0.215374841,0.201397713,0.212198221,0.209656925,0.216963151,0.215057179,0.214739517,0.216010165,0.216010165,0.215692503,0.201397713,0.207433291,0.201080051,0.208703939,0.195679797,0.195044473,0.18360864,0.181702668,0.17090216,0.164866582,0.16613723,0.157560356,0.14866582,0.15343075,0.136594663,0.122299873,0.116264295,0.117534943,0.092439644,0.114040661,0.120393901,0.101016518,0.094027954,0.081321474,0.057179161,0.058132147,0.059085133,0.060038119,0.046696315,0.060355781,0.049237611,0.037484117,0.039072427,0.037166455,0.034625159,0.040025413,0.042249047,0.045108005,0.025095299,0.028907243,0.045425667,0.030177891,0.027318933,0.016200762,0.029860229,0.028271919,0.031766201,0.024142313,0.011435832,0.021601017,0.006988564,0.014612452,0.021918679,0.016836086,0.000317662,0.008259212,0.010482846,0.011753494,0.00635324,0.01747141,0.019377382,0.01747141,0.015247776,0.012388818,0.010800508,0.009847522,0.008894536,0.007623888,0.006988564,0.007306226,0.007623888,0.007306226,0.006670902,0.006035578,0.005717916,0.005717916,0.005082592,0.005717916,0.00635324,0.005717916,0,0.00317662,0.013659466,0.001905972,0.010800508,0.020965693,0.005082592,0.014612452,0.019377382,0.013659466,0.011753494,0.004129606,0.005717916,0.013977128,0.018742058\nSRI-1052962-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)Cc1csc(n1)-c1ccccc1,1,0.998660288,0.987423993,0.967760477,0.935780253,0.890835073,0.833184236,0.76634989,0.693249148,0.617123249,0.543525517,0.476042923,0.415971961,0.363658365,0.31977199,0.283189206,0.25321855,0.228758,0.20840302,0.191635011,0.177632858,0.166115656,0.15613264,0.147856677,0.141244549,0.13564801,0.131067059,0.127415263,0.125038355,0.123705125,0.123517133,0.124619154,0.126933399,0.130185442,0.134526541,0.13993941,0.146370028,0.153587187,0.161636264,0.170409217,0.180052983,0.190124593,0.201121037,0.2126404,0.224591928,0.237161453,0.24963374,0.262369648,0.275384303,0.288360063,0.301087328,0.313803788,0.326239342,0.338532281,0.349893903,0.360786627,0.371087284,0.381186985,0.391444426,0.401617594,0.411989559,0.421244376,0.429606773,0.436458752,0.441458903,0.443980587,0.444561849,0.444918386,0.446374782,0.449289737,0.452297606,0.45301284,0.449285415,0.440443315,0.428701387,0.415662963,0.403268465,0.391682117,0.381068139,0.37104839,0.361404623,0.351728445,0.342149503,0.332399857,0.321896082,0.311044414,0.299514246,0.287387691,0.274962942,0.262073615,0.24924047,0.236653658,0.224263482,0.211931649,0.199882883,0.18794432,0.175915002,0.163632867,0.151247013,0.138569447,0.125744945,0.112656822,0.099598951,0.08675068,0.074360504,0.06263154,0.052002437,0.042496964,0.034419797,0.027327966,0.021772482,0.017401131,0.013749336,0.010907849,0.008781597,0.007083187,0.005739154,0.004812159,0.004014815,0.00329742,0.002670781,0.00240716,0.002266706,0.001942583,0.001583885,0.001501774,0.001279209,0.001188454,0.001050161,0.000976693,0.000937798,0.000970211,0.000983176,0.000870813,0.00075845,0.000730359,0.000743324,0.000605031,0.00049699,0.00062664,0.00065473,0.000561815,0.000613675,0.000551011,0.000546689,0.000535885,0.000533724,0.000535885,0.000529402,0.000479703,0.000430004,0.000386788,0.000345732,0.000321963,0.000298194,0.000280907,0.000267942,0.000252817,0.000233369,0.000213922,0.000192314,0.000170705,0.000151258,0.000136132,0.000116685,9.94E-05,6.91E-05,6.91E-05,8.64E-05,6.91E-05,0,6.91E-05,0.000159901,0.000190153,2.16E-06,9.29E-05,0.000192314,0.000125328,8.43E-05,9.72E-05,0.000162062\nSRI-1052972-001.txt,CCCCN1C(=O)c2cccc3c(ccc1c23)S(=O)(=O)N1CCCC1C(O)=O,0.969515786,0.976444016,0.98406507,0.99307177,1,1,0.988914831,0.961548321,0.917138364,0.855477113,0.783077104,0.707074416,0.633150197,0.567609137,0.51419248,0.47269238,0.443732376,0.425718977,0.417474383,0.41768223,0.423294096,0.435487782,0.452046253,0.472345968,0.494031329,0.517725878,0.542944637,0.566985596,0.589571628,0.610772013,0.63024034,0.646577108,0.659962449,0.669689685,0.674040613,0.671858221,0.663779904,0.649334543,0.628535996,0.602589773,0.572597463,0.538081019,0.498361473,0.452288741,0.400209233,0.344395408,0.28745921,0.233952486,0.186514892,0.146989337,0.117225659,0.095221599,0.080201196,0.070328467,0.064065347,0.060240964,0.058446552,0.057961576,0.058176351,0.05935415,0.061418763,0.063580371,0.066725788,0.070806515,0.075185157,0.079106535,0.082688431,0.085729924,0.087510479,0.088508144,0.088037024,0.086374249,0.084115646,0.081843186,0.08061689,0.079750861,0.080104201,0.081150363,0.082314306,0.082238096,0.081254287,0.078164296,0.072462362,0.063892141,0.053305805,0.04240077,0.031495736,0.022010988,0.014535428,0.008881991,0.004053015,0.001170871,0,4.85E-05,0.001392574,0.004066871,0.008071388,0.013357628,0.019974088,0.028863008,0.039844253,0.051552963,0.062104658,0.070647166,0.075386076,0.076356028,0.075628564,0.074748678,0.074284487,0.074734822,0.076785578,0.080623818,0.085944699,0.093829025,0.104526213,0.118756798,0.135647824,0.152975329,0.167670105,0.175464365,0.174009436,0.164815674,0.149739845,0.13155324,0.114094099,0.098824279,0.087496622,0.079709291,0.074866458,0.072448506,0.071395415,0.072386152,0.074028142,0.0763491,0.079702363,0.082681502,0.086339608,0.089519666,0.093212413,0.096648815,0.099731877,0.103133639,0.106258271,0.109362118,0.112119554,0.114897774,0.116629832,0.117648281,0.118542023,0.120017736,0.121722081,0.123052301,0.123883689,0.124237029,0.124209316,0.123987612,0.123731268,0.123426426,0.122733603,0.121992282,0.12078677,0.119491191,0.117800703,0.115292683,0.111946348,0.108198175,0.104533141,0.100653332,0.097161504,0.092789791,0.088674422,0.084108718,0.079016468,0.073931147,0.06894975,0.063940639,0.058557404,0.052890111,0.04713968,0.041250684,0.035818951\nSRI-0000251.txt,CC1=CC=C(C=C1)S(=O)(=O)NC(CN)C(O)=O,0.734086928,0.774964545,0.817093518,0.858596813,0.895720364,0.929924084,0.958079586,0.981646784,0.995828815,1,0.995203137,0.97997831,0.954742638,0.918661884,0.873195962,0.820639026,0.760115125,0.693438725,0.624801869,0.552994911,0.48110453,0.411007758,0.344665054,0.283807458,0.231709352,0.186577125,0.15014182,0.121527488,0.099461917,0.083298573,0.071264703,0.062296655,0.056540419,0.053245182,0.051076166,0.050617335,0.050825895,0.050408776,0.049970802,0.048948861,0.0480312,0.048010345,0.049470259,0.050116793,0.051034454,0.051347293,0.049115709,0.046821557,0.044297989,0.042441812,0.040001668,0.036289313,0.033473763,0.031972136,0.030553933,0.031096188,0.028593476,0.023567198,0.018290648,0.012763827,0.008926337,0.006527905,0.004921999,0.003274381,0.002794694,0.003336948,0.003253525,0.002189872,0.001960457,0.002419288,0.001814466,0.001835322,0.002627847,0.002857262,0.002315008,0.00225244,0.002335864,0.00168933,0.002189872,0.00235672,0.002627847,0.002898974,0.002419288,0.001897889,0.00112622,0.002043881,0.001459915,0.001376491,0.001897889,0.002231584,0.001918745,0.0012305,0.001626762,0.001480771,0.00179361,0.001439059,0.001835322,0.002440143,0.002210728,0.001856178,0.001459915,0.002273296,0.002148161,0.00112622,0.001313923,0.001355635,0.001751898,0.001376491,0.000917661,0.001668474,0.001501627,0.001272212,0.003441228,0.002231584,0.00168933,0.001814466,0.001751898,0.00158505,0.002189872,0.002148161,0.001877033,0.001856178,0.001626762,0.00281555,0.002523567,0.001918745,0.002586135,0.002669559,0,0.002043881,0.003044965,0.001355635,0.003336948,0.002752982,0.001814466,0.00168933,0.002627847,0.002502711,0.002878118,0.003420372,0.002210728,0.001981313,0.001835322,0.002606991,0.00291983,0.002669559,0.002648703,0.002627847,0.002627847,0.002690415,0.002732126,0.002773838,0.002773838,0.002711271,0.002669559,0.002627847,0.002586135,0.002523567,0.002481855,0.002419288,0.002398432,0.002398432,0.00235672,0.002419288,0.002586135,0.002898974,0.002940686,0.002169016,0.002752982,0.002878118,0.003420372,0.003211813,0.002732126,0.003295237,0.002878118,0.002711271,0.002294152,0.001877033,0.002377576,0.003670643,0.002648703\nSRI-0000537.txt,ClCCNC(=O)NC1=CC=CC=C1,0.36045073,0.384814512,0.412223766,0.442678493,0.476369035,0.51215334,0.551744485,0.594952129,0.638350115,0.683080496,0.727049508,0.769305442,0.811180692,0.850200811,0.88731751,0.919865999,0.94879799,0.971068009,0.989150503,0.998667606,1,0.994289739,0.979823743,0.956030988,0.923482498,0.884081695,0.837638236,0.784342463,0.725374498,0.659992006,0.58893732,0.515408189,0.441955193,0.370386585,0.305955803,0.249766831,0.202600072,0.166377981,0.137407922,0.115670861,0.101052592,0.0903173,0.0815806,0.07596551,0.072425148,0.070502693,0.068884786,0.068275691,0.067495289,0.067019434,0.067514323,0.067990178,0.068389897,0.068580239,0.068827683,0.068599273,0.069151265,0.068256657,0.067209776,0.065572834,0.064430782,0.062146678,0.060414565,0.05790205,0.055979595,0.054038106,0.050726155,0.046957382,0.043588328,0.038144546,0.033081447,0.029731427,0.026933399,0.024078269,0.021851267,0.019491025,0.01806346,0.015836458,0.01507509,0.013323943,0.011934446,0.010849497,0.009802615,0.008641529,0.007118792,0.007004587,0.005938672,0.004986962,0.004910825,0.004454004,0.004206559,0.00430173,0.005044064,0.00443497,0.004967927,0.004511106,0.004815654,0.004244628,0.003882978,0.003292917,0.003178712,0.004282696,0.003692636,0.00335002,0.003311952,0.002931267,0.002702857,0.003102575,0.001960523,0.001694044,0.001770181,0.002874165,0.001827284,0.002512515,0.002017626,0.001636942,0,0.001979557,0.001789215,0.00239831,0.002664789,0.001294326,0.001465634,0.001199155,0.002227002,0.001541771,0.001941489,0.001389497,0.001884386,0.002322173,0.002093762,0.002931267,0.002284105,0.002093762,0.002702857,0.003825875,0.003311952,0.003464225,0.003540362,0.003216781,0.003882978,0.003635533,0.004035251,0.003787807,0.004358833,0.004910825,0.005158269,0.005215372,0.005177304,0.00525344,0.005443782,0.005672193,0.005919638,0.006129014,0.006300322,0.006452595,0.006623903,0.006852314,0.007042656,0.007271066,0.007518511,0.007804024,0.008127605,0.008508289,0.008908008,0.009307726,0.009726478,0.009402897,0.009364829,0.009383863,0.010849497,0.010697223,0.009764547,0.009954889,0.009992957,0.010202334,0.011325352,0.011401488,0.011154044,0.011439557,0.011648933\nSRI-1053103-001.txt,CC(=O)Nc1ccc(cc1)S(=O)(=O)N[C@@H](Cc1ccccc1)C(O)=O,0.98691948,0.993691253,0.998668797,1,0.994848822,0.978758624,0.951034866,0.910751493,0.859297588,0.799798583,0.735785063,0.673334259,0.614356161,0.562034079,0.519204056,0.486618512,0.46375654,0.449460573,0.44338334,0.445351206,0.452296615,0.464335324,0.479210075,0.496284206,0.514631662,0.53326851,0.551731722,0.56961615,0.586742372,0.601512942,0.614240404,0.622974256,0.626771079,0.625121545,0.618465528,0.606548363,0.590058804,0.570142844,0.546800482,0.520830439,0.491619206,0.457679307,0.418275686,0.373385192,0.324929388,0.274372598,0.225037042,0.17984558,0.140742927,0.109604343,0.086192527,0.069025791,0.057843682,0.050250035,0.045747095,0.043125203,0.042025513,0.042089179,0.042963143,0.044624253,0.047008844,0.05114715,0.056037876,0.061113812,0.066837987,0.0717345,0.075496597,0.078483123,0.079658054,0.079050331,0.077192434,0.074981479,0.073436125,0.072816826,0.073193036,0.074981479,0.077360282,0.079056119,0.080358383,0.079559661,0.076046442,0.069558272,0.060106728,0.048808862,0.03683382,0.026155253,0.017108858,0.010215539,0.005666296,0.002367227,0.00050933,0,0.001001296,0.003142798,0.007020651,0.011934528,0.017913368,0.025935315,0.035739918,0.047182479,0.059956244,0.072608464,0.082609853,0.089289022,0.091563643,0.091511553,0.090382924,0.088843358,0.089086447,0.091065889,0.094301292,0.099458258,0.106594666,0.116914386,0.130203269,0.146918554,0.165271797,0.181500903,0.192399407,0.194459879,0.187022503,0.172344539,0.153366208,0.133745428,0.115959393,0.101084641,0.089844654,0.082193129,0.077441311,0.075305598,0.07420012,0.074622633,0.076034866,0.07792749,0.080294717,0.082974487,0.085770014,0.088785479,0.091476825,0.094445988,0.096865305,0.099475622,0.101848636,0.103584989,0.105900125,0.107619114,0.108747743,0.109384405,0.10980113,0.110258369,0.110582488,0.110814002,0.110651942,0.110212066,0.109581192,0.108892439,0.10805899,0.107127147,0.105848034,0.104343196,0.102317451,0.100106496,0.097328333,0.093676205,0.089109599,0.084346205,0.080011113,0.075919109,0.071288836,0.066762745,0.061889383,0.056772931,0.051494421,0.046221697,0.041197852,0.035450526,0.029934713,0.02452887,0.018648423,0.012941612,0.007200074\nSRI-1053113-001.txt,CSCCC(NS(=O)(=O)c1cc2[nH]c(=O)[nH]c2cc1C)C(O)=O,1,0.95300128,0.895947411,0.828278217,0.750974005,0.666751627,0.578748064,0.491948878,0.410891491,0.338292753,0.276869516,0.228022217,0.190210374,0.162369654,0.143099619,0.13029961,0.122597197,0.118507917,0.117023452,0.117555618,0.119236145,0.121840961,0.125117987,0.12892718,0.132935235,0.13722898,0.141676773,0.146096557,0.150524744,0.154586016,0.15830278,0.161414555,0.163803703,0.165299372,0.165820335,0.165024886,0.163240727,0.160140156,0.155997658,0.150547151,0.143917475,0.136007798,0.127274662,0.11778529,0.107878588,0.098265977,0.08924155,0.081177825,0.074248455,0.06877274,0.064918733,0.062666827,0.061832166,0.062495974,0.064428579,0.067456327,0.071511998,0.07643594,0.081922858,0.088166014,0.094750876,0.101806286,0.109265022,0.116950629,0.124515798,0.132422675,0.140111083,0.147533407,0.154193894,0.15989928,0.164489918,0.167568082,0.169229003,0.169850797,0.169257011,0.167800555,0.165590663,0.161999938,0.156518622,0.148214021,0.136943291,0.12289129,0.106982307,0.090163039,0.073646266,0.058569144,0.04540222,0.034495604,0.025751265,0.019045965,0.013897953,0.010083158,0.007475541,0.005391689,0.004008055,0.00306416,0.002433962,0.001949411,0.001456456,0.001260395,0.000985909,0.000801051,0.000789847,0.000817856,0.000722626,0.000675011,0.00057418,0.000532167,0.000436937,0.000386521,0.000453742,0.000481751,0.000445339,0.000380919,0.000235274,0.00038372,0.000302495,0.000274486,0.000266083,0.00025488,0.0003193,0.000308096,0.000347309,0.000215668,0.000243676,0.000263282,0.00041453,0.000187659,0.000182057,0.00019046,0.000182057,0.000187659,0.000137243,0.000168053,9.8E-05,0.000145646,0.000168053,7.84E-05,0.000106433,0.00012884,0.000207265,0.000154048,0.000148446,0.000221269,0.000120438,0.000126039,0.000131641,0.000120438,8.96E-05,6.72E-05,5.32E-05,4.2E-05,3.64E-05,3.92E-05,4.2E-05,4.76E-05,5.6E-05,6.16E-05,6.44E-05,6.72E-05,7E-05,7E-05,7.28E-05,7.28E-05,8.12E-05,8.12E-05,8.96E-05,0.000117637,0.000137243,0.000142845,0,7.84E-05,6.16E-05,0.000154048,0.00015965,0.000103632,0.000196061,4.2E-05,0.000137243,7.28E-05,0.000176455\nSRI-1053281-001.txt,Cc1ccc(cc1)S(=O)(=O)N[C@@H](C(O)=O)C1=CCC=CC1,0.972785193,0.98659851,0.997082902,1,0.997357453,0.988674797,0.972356209,0.950924119,0.924841833,0.89352593,0.855397746,0.81162412,0.762187892,0.704841181,0.639652625,0.566639383,0.488255249,0.409922594,0.336343092,0.27075987,0.216295938,0.172934137,0.13945615,0.114369109,0.095991393,0.082469787,0.072603132,0.065104475,0.059476192,0.055237821,0.052173152,0.049897816,0.048494177,0.04778721,0.047783778,0.048434119,0.049606106,0.051232817,0.053415493,0.055841832,0.058705735,0.061984896,0.065555767,0.069545327,0.073780267,0.078416737,0.083411838,0.088698648,0.094114155,0.099776756,0.105437642,0.111158585,0.116948167,0.122784078,0.128680048,0.134733883,0.140885528,0.147153856,0.153406741,0.159433122,0.165128327,0.170454604,0.175096221,0.179087497,0.182467899,0.185379849,0.188087602,0.190731866,0.192984895,0.194934202,0.196538606,0.197602489,0.198094964,0.197537283,0.195747558,0.192396327,0.187615719,0.181709454,0.175242076,0.168489853,0.161638105,0.154587308,0.147577693,0.140775708,0.134811101,0.12964269,0.124774568,0.119395097,0.112725239,0.10486795,0.09631399,0.087645061,0.079302162,0.071784629,0.065336127,0.059948076,0.055659942,0.052543795,0.050261595,0.048603997,0.046340672,0.042272179,0.035809949,0.028259814,0.021245052,0.01553612,0.011338931,0.008384082,0.006182531,0.004653629,0.003545132,0.002647695,0.002096879,0.001600972,0.001297251,0.001079326,0.000883709,0.000775605,0.000720695,0.000573124,0.00045644,0.000513066,0.000427269,0.000367211,0.000461588,0.000454724,0.00029171,0.000332892,0.000296858,0.000262539,0.00027455,0.000362063,0.000279698,0.00027455,0.000245379,0.000243663,0.000217924,0.000209345,0.000226504,0.000199049,0.000138991,0.000142423,0.00010982,0.00016473,0.00016473,0.000169878,0.000157866,0.000128695,8.92E-05,4.46E-05,2.57E-05,1.2E-05,3.43E-06,1.72E-06,3.43E-06,1.54E-05,3.09E-05,4.29E-05,5.66E-05,6.69E-05,7.89E-05,8.75E-05,9.27E-05,9.09E-05,8.41E-05,9.61E-05,0.000151003,0.000169878,8.92E-05,0,0.00010124,4.46E-05,0.000104672,0.000111536,0.00012698,0.000108104,9.44E-05,0.000132127,2.57E-05,7.55E-05,0.000123548\nSRI-1053291-001.txt,C[C@H](NC(=O)COc1ccc(cc1)-c1nnn(C)n1)C(O)=O,0.246890577,0.236644968,0.233166227,0.23535831,0.242792333,0.25480114,0.270717574,0.290255711,0.311890625,0.337004279,0.3634999,0.391996988,0.422257274,0.454233104,0.487400284,0.521186966,0.556022035,0.590714143,0.62635933,0.663100559,0.698936363,0.73434328,0.768368232,0.80210726,0.833558896,0.863609504,0.891515683,0.917286963,0.939879721,0.959522698,0.975648809,0.987357395,0.995196477,0.999628299,1,0.996140026,0.988229464,0.976273076,0.959589413,0.938483459,0.913546124,0.883952994,0.850323571,0.812748396,0.772261563,0.729754201,0.684501968,0.638263298,0.590218541,0.540601203,0.492342003,0.446651354,0.403190911,0.363447481,0.327478246,0.29423482,0.263702906,0.236349513,0.212360493,0.191769202,0.174013324,0.15833516,0.143433756,0.129089904,0.115270246,0.102036732,0.088903291,0.077189939,0.067463759,0.058785967,0.051814188,0.04611477,0.040706042,0.035306844,0.029564538,0.023912774,0.018751847,0.014367679,0.011360712,0.009178159,0.007300592,0.006171192,0.005332482,0.00465103,0.004284094,0.003678888,0.003454915,0.002844943,0.002735339,0.002535192,0.002335046,0.002263565,0.002139664,0.002001468,0.001925221,0.001915691,0.001868037,0.001877567,0.001720309,0.001567816,0.001320016,0.001157992,0.001153227,0.000929253,0.000633798,0.000400294,0.000548021,0.000347874,0.000462244,0.00047654,0.000667156,0.000719575,0.000643329,0.000619502,0.000276393,0.000271628,0.000581379,0.000409824,0.000710045,0.000495602,0.000409824,0.000605206,0.000571848,0.000400294,0.000638564,0.000462244,0.000376467,0.000648094,0.000786291,0.000581379,0.000605206,0.00059091,0.000810118,0.000481305,0.00035264,0.000557552,0.000733872,0.000395528,0.00041459,0.000443182,0.000271628,0.00036217,0.00017632,0.000343109,0.000295455,0.000295455,0.000285924,0.000209678,0.000109604,1.91E-05,0,9.53E-06,1.91E-05,2.38E-05,2.86E-05,5.72E-05,0.000104839,0.000142962,0.000171554,0.000190616,0.000214443,0.00023827,0.000257332,0.000247801,0.000204912,0.000162024,0.000285924,0.000357405,0.000262097,8.1E-05,9.53E-05,7.15E-05,2.38E-05,0.000200147,0.000309751,0.000200147,0.000247801,0.000171554,0.000204912,0.000162024,0.000290689\nSRI-0000536.txt,[O-][N+](=O)C1=CC=C(NC(=O)NCCCl)C=C1,0.794090202,0.798533659,0.800014812,0.795571355,0.78668444,0.772021032,0.750248093,0.725660964,0.695001111,0.660934607,0.625535066,0.587469451,0.550736873,0.51385618,0.476827372,0.441575946,0.406768866,0.373294823,0.341450048,0.31093831,0.282500185,0.257024365,0.234066504,0.212886025,0.19377916,0.176005332,0.159860772,0.144604903,0.129645264,0.116018663,0.102273569,0.088276679,0.075538769,0.063304451,0.051944012,0.04170925,0.031963267,0.024350144,0.018558839,0.013656225,0.010294009,0.008472191,0.008250019,0.008857291,0.010679108,0.01410057,0.017610901,0.021846997,0.026571873,0.031874398,0.03811005,0.044730801,0.05240317,0.060253277,0.06835518,0.077553136,0.086795527,0.096186033,0.106302303,0.116996223,0.127690143,0.138739539,0.150129601,0.161964008,0.173576242,0.186743687,0.198681774,0.212308376,0.225772051,0.239798563,0.254461971,0.268829149,0.285047767,0.299844479,0.316077909,0.333466637,0.351240465,0.369029105,0.387484263,0.406916981,0.426764423,0.446611864,0.467466489,0.487921203,0.508124121,0.529586018,0.551270088,0.572672739,0.59465304,0.615626157,0.636969562,0.658520329,0.678930608,0.700155521,0.721380434,0.74078353,0.760734652,0.779915574,0.799866696,0.817966378,0.836036436,0.853010442,0.869451233,0.885314375,0.900007406,0.914122788,0.927068059,0.93884322,0.950870177,0.960512479,0.968732874,0.97705695,0.983633267,0.989928164,0.993705103,0.996430423,0.998578094,1,0.999066874,0.996815522,0.993912464,0.989394949,0.983322225,0.976449678,0.967740502,0.958572169,0.946974746,0.934873732,0.922269125,0.909634896,0.896171221,0.881700363,0.866874028,0.850255499,0.832348367,0.813700659,0.794756721,0.775620233,0.755195142,0.73554025,0.714404206,0.692927498,0.67116937,0.648152262,0.625001851,0.602858624,0.587350959,0.578034511,0.563696956,0.534296082,0.499459379,0.467422054,0.442346145,0.424187218,0.410219951,0.397719025,0.385129231,0.371117529,0.355654299,0.338428497,0.318862475,0.296763682,0.270843516,0.2411316,0.209982967,0.18327779,0.162986003,0.145671332,0.130933867,0.117085092,0.103088203,0.089461601,0.076560764,0.064593053,0.054432348,0.044153151,0.034155373,0.024705621,0.015300304,0.007731615,0\nSRI-1052857-001.txt,O=C(C1CC1)N1CCc2ccc(NS(=O)(=O)CCN3C(=O)c4ccccc4C3=O)cc12,0.993897622,1,0.997155171,0.982547787,0.960835702,0.930117449,0.890584649,0.848634482,0.806684315,0.764557268,0.726026792,0.691048666,0.654965037,0.617451623,0.577506102,0.538312324,0.502405575,0.47086188,0.444889921,0.4244897,0.407214367,0.387786989,0.36163815,0.329799653,0.297769536,0.270633114,0.251249956,0.239870641,0.235124347,0.235457472,0.239198495,0.24525518,0.252608988,0.261136104,0.270093629,0.279574425,0.289282219,0.298073181,0.305102709,0.309563046,0.311166763,0.310140856,0.307319611,0.303322111,0.299485278,0.295847435,0.29235257,0.288558483,0.283088452,0.27432697,0.260816245,0.242124394,0.219115185,0.19506238,0.172470314,0.153455656,0.138382486,0.127597196,0.120333302,0.116080799,0.114334104,0.114334104,0.115732934,0.118232846,0.121521349,0.12549674,0.129926123,0.134756436,0.139857965,0.145142271,0.150509121,0.155609177,0.16074903,0.16548648,0.169708029,0.173174888,0.175831044,0.177601323,0.17859775,0.178842435,0.178136387,0.176548884,0.174222905,0.170548212,0.165828449,0.159904426,0.15225729,0.143109619,0.132411294,0.12035099,0.107391543,0.094126977,0.081279554,0.069145549,0.058260026,0.04883819,0.040759171,0.034068665,0.028690023,0.024198731,0.020562362,0.017632041,0.015283952,0.01334711,0.011730127,0.010521444,0.00941594,0.008516798,0.007765055,0.007116494,0.00657406,0.006123015,0.005781045,0.005262196,0.004862741,0.004581206,0.004267243,0.004080044,0.003855996,0.003598045,0.003312088,0.003214804,0.003051189,0.002774076,0.002690058,0.002555924,0.002414419,0.002430633,0.002364303,0.002284707,0.002228695,0.002163839,0.002190371,0.002128462,0.00209456,0.002032652,0.001922102,0.001864616,0.001929472,0.001855772,0.001854298,0.001724585,0.001678891,0.001605191,0.001583081,0.001540335,0.001531491,0.001522647,0.001490219,0.001409148,0.001320708,0.00124406,0.001182152,0.001137931,0.001105503,0.001081919,0.001058335,0.001027381,0.000994953,0.000958103,0.000916831,0.000869663,0.000809228,0.000741424,0.000675094,0.000623504,0.000574862,0.000536538,0.000439253,0.000442201,0.000421565,0.000347865,0.000327229,0.000285957,0.000225523,0.000194569,8.55E-05,2.21E-05,5.01E-05,0,2.36E-05\nSRI-1053340-001.txt,CC(NS(=O)(=O)c1ccc2OCCOc2c1)C(O)=O,1,0.833199567,0.69056426,0.572094078,0.479708274,0.41113864,0.364640402,0.336287818,0.322242384,0.317618732,0.321893429,0.330879017,0.344924451,0.362197718,0.381477475,0.402327529,0.425096835,0.449000244,0.473601563,0.498464599,0.52428726,0.54949925,0.572704749,0.593380326,0.610479115,0.623285759,0.630762117,0.632428377,0.628136232,0.617109258,0.599774924,0.576543253,0.54744914,0.512763025,0.473776041,0.430488188,0.385054262,0.33901839,0.294387061,0.253611683,0.217189517,0.186420421,0.161557386,0.142268905,0.127979202,0.118662107,0.11303521,0.110208675,0.110758279,0.11276477,0.116891161,0.122169104,0.128938828,0.136990962,0.146002722,0.15552919,0.166111247,0.176632236,0.187842412,0.199706878,0.211972642,0.225145689,0.237769131,0.24945912,0.259622431,0.267761803,0.274042991,0.277157414,0.278867292,0.279443068,0.277837876,0.275063684,0.270335346,0.26210001,0.248926964,0.230031057,0.205586768,0.17668458,0.146508706,0.117737377,0.091347664,0.069206477,0.05220365,0.03929232,0.02958265,0.022490142,0.017508811,0.014001815,0.011122937,0.009910319,0.008540671,0.007485082,0.00684824,0.006455665,0.006211397,0.005940957,0.005705412,0.005077294,0.004248526,0.004536413,0.003794884,0.002809087,0.0019367,0.001596469,0.0013522,0.001448163,0.001273685,0.001003245,0.001029417,0.001038141,0.000462365,0.000410022,0.000671738,0.000645567,0.000619395,0.00069791,0.000610671,0.000444917,0.000505985,0.000610671,0.000532156,0.00038385,0.000628119,0.000340231,0.000392574,0.000453641,0.00081132,0.00054088,0.000444917,0.000453641,0.000462365,0.000418746,0.000340231,0.00042747,0.000601947,0.000226821,0.000357679,0.000261716,8.72E-05,0.000130858,0.000174477,0.000392574,0.000314059,0.000619395,0.000514708,0.000366403,0.000296612,0.000183201,6.11E-05,0,0,2.62E-05,6.98E-05,9.6E-05,0.000130858,0.000139582,0.000139582,0.000130858,0.000130858,0.000130858,0.00015703,0.000183201,0.000200649,0.000218097,0.000235545,0.000296612,0.000401298,0.000418746,0.00011341,0.000314059,0.000122134,0.000252992,0.000218097,0.000244268,0.000401298,0.000497261,0.000357679,0.00042747,0.000261716,0.000218097,6.11E-05\nSRI-1052986-001.txt,CSCCC(NS(=O)(=O)c1ccc(Oc2ccccc2C)cc1)C(O)=O,0.613747606,0.591402426,0.574377527,0.564268993,0.560012769,0.561608853,0.568525218,0.581293892,0.598850819,0.620663971,0.647265376,0.677005746,0.709299851,0.743456054,0.779261545,0.815545861,0.850606512,0.884815918,0.91609917,0.943711428,0.966216216,0.984411577,0.99563737,1,0.996222601,0.985262822,0.966056608,0.93844435,0.903436901,0.861459885,0.813364546,0.761704618,0.708054905,0.654564801,0.604155139,0.556134284,0.511917429,0.471754629,0.435092573,0.402202596,0.372547351,0.346084273,0.323223026,0.302958076,0.284443499,0.266577995,0.249276442,0.232687806,0.217854863,0.205426687,0.195052139,0.185943818,0.176080017,0.164699936,0.151718451,0.138178336,0.124638221,0.111965312,0.101473718,0.093264524,0.086592892,0.08030964,0.072994254,0.06439668,0.055533092,0.047004682,0.039173228,0.032411151,0.027229198,0.023451798,0.020318153,0.017477123,0.015439455,0.013710364,0.012327091,0.010842732,0.009863801,0.00928389,0.008868908,0.008246435,0.007645244,0.007102575,0.006799319,0.006299213,0.005932113,0.005570334,0.005144712,0.004894658,0.004830815,0.004399872,0.004107257,0.004011492,0.004048734,0.003724197,0.003665674,0.003170887,0.003314535,0.00340498,0.00339966,0.003202809,0.00303788,0.002755906,0.002489891,0.002298361,0.001925942,0.001590764,0.001548202,0.001026814,0.00075548,0.000845925,0.000829964,0.000829964,0.000345818,0.000329857,0.00056927,0.00038306,0.000436263,0.000468185,0.000521388,0.000500106,0.000287295,0.000234092,0.000313897,0.000404341,2.66E-05,0.000175569,0.000505427,0.000393701,0.000430943,0.000303256,0.000420302,0.00037774,0.00037242,0.000335178,0.000287295,0.00038306,0.000138327,0.000260694,0.000329857,6.92E-05,0.000297936,2.13E-05,0.000244733,0.000271334,0.000223452,0.00018089,0.000202171,0.000223452,0.000260694,0.000212811,0.000154288,0.000133007,0.000106406,6.38E-05,3.72E-05,4.26E-05,3.19E-05,2.13E-05,1.06E-05,0,2.13E-05,3.19E-05,4.26E-05,4.79E-05,4.79E-05,6.92E-05,0.000159608,0.000244733,0.000127687,5.85E-05,0.000106406,6.92E-05,7.45E-05,0.000111726,6.92E-05,0.000212811,0.000202171,0.000255373,0.000260694,0.00018089,0.000175569\nSRI-1052996-001.txt,O=C(C[C@@H]1NC(=O)N(CCc2c[nH]c3ccccc23)C1=O)NCc1ccncc1,1,0.991823566,0.973860666,0.9440593,0.901724943,0.84467932,0.773995782,0.691505348,0.603679711,0.514559735,0.430617116,0.356745085,0.294016997,0.243032668,0.203002866,0.172696392,0.150313798,0.134181915,0.122785418,0.114829968,0.109778889,0.107063934,0.10595901,0.106391509,0.108026796,0.110943794,0.11493099,0.119922087,0.126030736,0.132979126,0.140760945,0.149148893,0.158218737,0.167866298,0.178088419,0.188582036,0.19912932,0.209357755,0.219033729,0.228229849,0.237091336,0.245274084,0.25228877,0.25734932,0.2603263,0.260878761,0.25995694,0.258065942,0.255417282,0.251471127,0.245722367,0.237716407,0.227390107,0.215709487,0.20390259,0.192881767,0.1835278,0.176184794,0.171272619,0.168301954,0.166647725,0.165476506,0.164238992,0.162354308,0.159156344,0.154607215,0.148915281,0.143614805,0.13971916,0.137480901,0.136142365,0.133051736,0.126267505,0.115644455,0.102855754,0.089688222,0.077354119,0.066323825,0.056707833,0.048436691,0.04143779,0.03503239,0.029690874,0.025163844,0.021053529,0.017681934,0.014771249,0.012280436,0.010319986,0.008649973,0.007122021,0.006026569,0.005155258,0.004347085,0.003627306,0.003197964,0.002841232,0.002465558,0.002140395,0.002045687,0.002033059,0.001742622,0.001581619,0.001505853,0.001496382,0.001420616,0.001366948,0.001325908,0.001136493,0.00122173,0.001104924,0.001032314,0.001130179,0.001032314,0.001010216,0.000959705,0.000988117,0.000899723,0.00098496,0.000789231,0.000833428,0.000745034,0.000801859,0.000713465,0.000637699,0.000593502,0.000561933,0.000593502,0.000609286,0.00057456,0.000555619,0.000524049,0.000565089,0.000584031,0.000599816,0.000423028,0.000322006,0.0004104,0.000467225,0.000356732,0.000372517,0.000441969,0.000375674,0.000337791,0.000303065,0.000309379,0.000299908,0.000290437,0.000280966,0.000265182,0.000258868,0.00024624,0.000233612,0.000224142,0.000208357,0.000198886,0.000189415,0.000183102,0.000173631,0.000170474,0.00016416,0.000167317,0.000170474,0.000170474,0.000145219,9.16E-05,8.21E-05,0.000290437,7.26E-05,3.16E-05,0.000148375,0.000161003,0.000129434,0,0.00028728,0.000151532,5.68E-05,0.000167317,0.000183102,0,7.26E-05\nSRI-1053026-001.txt,CN(C)CCCn1c(N)c(-c2nc3ccccc3[nH]2)c2nc(C#N)c(nc12)C#N,0.758343892,0.74767438,0.735254401,0.721917511,0.707163577,0.691409376,0.676655441,0.664568885,0.654316151,0.647397639,0.642146239,0.637645039,0.632977127,0.627308949,0.618556615,0.604469525,0.587131568,0.565209056,0.541035943,0.515529141,0.490439117,0.466182649,0.442593025,0.419753601,0.398247866,0.378992731,0.362738397,0.349618232,0.340265738,0.333930715,0.330196386,0.328887703,0.328904374,0.330671512,0.334347493,0.339515537,0.345975593,0.35288577,0.359704254,0.366005935,0.372482662,0.379209456,0.386619765,0.395980595,0.406641771,0.418653308,0.431556748,0.445085356,0.458005468,0.470683849,0.481169979,0.489030408,0.4939984,0.495857229,0.494381835,0.489672246,0.482320285,0.473734663,0.464990664,0.456621766,0.448644639,0.442576354,0.437533342,0.434690918,0.433248866,0.434507535,0.437616698,0.443068152,0.450453454,0.461323019,0.475768538,0.493006468,0.512478328,0.532800413,0.55058849,0.564058749,0.57366131,0.579629568,0.587389971,0.599834956,0.619181782,0.645105361,0.67663877,0.711464724,0.746165644,0.777682382,0.801297013,0.815975927,0.822869432,0.824911643,0.828604294,0.837381635,0.851768805,0.874766604,0.903590958,0.935057682,0.964565551,0.989455521,1,0.985679515,0.937316618,0.85303581,0.73883869,0.612296612,0.485679515,0.36959856,0.272005868,0.192984796,0.132168578,0.085647839,0.052222259,0.029007735,0.013103494,0.00390104,0.000250067,0,0.002667378,0.007918778,0.014828954,0.024048079,0.034217458,0.044920312,0.056890171,0.069985329,0.083380568,0.097450987,0.111679781,0.126250333,0.140854228,0.155066351,0.16868665,0.182231929,0.195935583,0.210172713,0.224243132,0.238021806,0.251775473,0.265229061,0.279032742,0.291794479,0.304606228,0.317109563,0.329004401,0.340782542,0.35243565,0.36293845,0.370307082,0.374508202,0.379676247,0.389870632,0.401665444,0.412451654,0.42033709,0.42543845,0.428564284,0.431056615,0.433573953,0.436199653,0.438491931,0.441000934,0.443118165,0.445960589,0.44888637,0.451070285,0.452012203,0.450961923,0.448336223,0.445018672,0.440567485,0.435157709,0.429697919,0.423571286,0.416294345,0.408183849,0.400223393,0.391771139,0.382710389,0.373166178,0.362871766,0.352777407,0.34194952\nSRI-1053036-001.txt,O=C(NC(Cc1c[nH]c2ccccc12)c1nc2ccccc2[nH]1)c1ccccc1,1,0.988817696,0.966627811,0.932806334,0.887727671,0.833139057,0.771561504,0.707637663,0.645735623,0.58867592,0.539129328,0.497769779,0.463623815,0.435643095,0.412804237,0.393010561,0.375862697,0.36051199,0.346009939,0.331757494,0.318378666,0.305224482,0.292220062,0.279315483,0.266385944,0.253905694,0.241924654,0.230762319,0.220673285,0.211914645,0.20465114,0.198950161,0.19478675,0.192058567,0.19087544,0.191087604,0.192540305,0.195216071,0.198907729,0.203610287,0.209693161,0.217645576,0.226948354,0.23704238,0.246974163,0.256022345,0.264444017,0.272506259,0.282026194,0.293515512,0.306991686,0.319334653,0.326942613,0.326026563,0.317315348,0.305995762,0.299071719,0.300968717,0.308878699,0.314517276,0.308466851,0.28921981,0.261760764,0.232454641,0.205127885,0.180728996,0.160288843,0.144329099,0.133274094,0.126325091,0.121170747,0.114808316,0.105562947,0.093404687,0.080128197,0.067630475,0.056687792,0.047190321,0.039659738,0.033107607,0.027643754,0.023228241,0.019484166,0.016316679,0.013635921,0.011551719,0.009724611,0.008326823,0.007121231,0.006090362,0.005266666,0.00467011,0.004013648,0.003559367,0.003224897,0.002852985,0.002511026,0.002321327,0.002084202,0.001832101,0.001679842,0.001594976,0.00147267,0.001372828,0.001270489,0.001068309,0.000970963,0.000963475,0.000946003,0.000778768,0.000753807,0.000658957,0.000648973,0.000648973,0.000551627,0.000621516,0.000641485,0.000501706,0.000451785,0.000401864,0.00049921,0.000526667,0.000464265,0.000554123,0.000406856,0.00041684,0.00039188,0.00032199,0.000334471,0.000364423,0.000277062,0.000361927,0.000294534,0.000314502,0.000244613,0.00020218,0.000249605,0.0001897,0.000274566,0.000184708,0.000137283,0.000207172,0.000247109,0.000294534,0.00020218,0.000159747,0.000182212,0.000197188,0.000182212,0.000162243,0.000144771,0.000124803,0.000109826,9.24E-05,7.74E-05,6.99E-05,6.99E-05,6.74E-05,6.24E-05,5.49E-05,5.24E-05,4.74E-05,5.74E-05,6.49E-05,6.99E-05,6.74E-05,4.24E-05,0.000147267,8.99E-05,0.000122306,9.73E-05,4.74E-05,0.000154755,0,5.99E-05,7.49E-05,4.24E-05,2.5E-06,5.24E-05,4.49E-05,6.49E-05\nSRI-0000046.txt,CC1=C(Cl)C=C(C=C1)N1CCNCC1,0.930319511,0.828725735,0.747022685,0.680300627,0.627552433,0.589911121,0.563851751,0.548996651,0.545723494,0.551262683,0.56359997,0.581980009,0.606654581,0.634854093,0.665319636,0.698302994,0.733804164,0.768801773,0.803925271,0.838167535,0.871150893,0.901490546,0.92843115,0.95260216,0.972278873,0.986932548,0.996701664,1,0.997419241,0.988304756,0.972518065,0.950361306,0.921645643,0.88616965,0.845607674,0.799519098,0.748822922,0.695231261,0.6385301,0.581514213,0.523403077,0.467167712,0.413487927,0.362993177,0.317106025,0.275763527,0.240010575,0.210224841,0.184945993,0.16472795,0.149696603,0.138303497,0.13043533,0.125966211,0.123209205,0.122755999,0.124430345,0.126696377,0.129591862,0.133330816,0.137384495,0.141564066,0.146209432,0.149898029,0.153750283,0.157388524,0.16149256,0.164967143,0.167585669,0.169020822,0.16972581,0.170997306,0.170884004,0.170204195,0.167812272,0.166226049,0.163317975,0.15946572,0.155122492,0.150389002,0.144988292,0.138756704,0.132499937,0.126406828,0.119319183,0.112030113,0.104539618,0.097376438,0.090414684,0.083566231,0.076654833,0.069164338,0.062882393,0.056650804,0.05063323,0.045811617,0.041430622,0.036332049,0.031648916,0.028123977,0.024133243,0.020985976,0.018405217,0.015774102,0.014225646,0.012387643,0.010348214,0.008422086,0.007251303,0.00580356,0.005111161,0.004418763,0.003185034,0.00242969,0.00270665,0.002152731,0.001838004,0.001498099,0.001535866,0.000742755,0.001384797,0.001523277,0.001422565,0.000742755,0.000629453,0.000579097,0.001258907,0.00040285,0.000969358,0.000339905,0.000654632,0.000591686,0.001007125,0.000528741,0.000239192,0.000553919,0.000314727,0.000113302,0.000428028,0.000365083,0.000528741,0.000767933,0.000100713,0.000994536,0.000503563,0.00013848,0.00013848,3.78E-05,0.00013848,0.000327316,0.000503563,0.000616864,0.000642042,0.000642042,0.000591686,0.000528741,0.000465796,0.00040285,0.000352494,0.000314727,0.00026437,0.000239192,0.000226603,0.000226603,0.00026437,0.000339905,0.000453206,0.000365083,0.00054133,0.000629453,0.000692399,0.000919002,0.001271496,0.000289549,0.000428028,0.000377672,0.000465796,0,0.000214014,0.000818289,0.000226603\nSRI-1053044-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)CCc1ccc2OCCc2c1,0.994498685,1,0.996291248,0.982074367,0.956638511,0.918438368,0.8662995,0.802632596,0.731239125,0.655796933,0.581961868,0.513319055,0.451753776,0.398502282,0.352822824,0.314097274,0.28062579,0.251141214,0.224561826,0.200053159,0.177924273,0.157587952,0.139260537,0.123374717,0.110023211,0.099113299,0.090768608,0.084494636,0.080498456,0.078155761,0.077380014,0.077791067,0.079095312,0.08125875,0.08402177,0.087690344,0.091689615,0.096140117,0.100998581,0.105847774,0.111308911,0.11672987,0.12245371,0.128335172,0.134405163,0.140765672,0.146968559,0.153390881,0.159865743,0.166133534,0.172342602,0.178403321,0.184380592,0.190129157,0.195259597,0.199747187,0.203638285,0.207612831,0.212004611,0.216652913,0.221709178,0.22620604,0.229633544,0.231521917,0.231262305,0.228282941,0.223390479,0.217808808,0.21347884,0.211222683,0.20972682,0.205746093,0.196866723,0.182300601,0.163979367,0.144616592,0.12521673,0.106592615,0.08939946,0.073482734,0.059268943,0.047042425,0.036957711,0.028983895,0.022768645,0.017814371,0.014182885,0.011419865,0.009321329,0.007742019,0.006549037,0.005628031,0.004864646,0.004351602,0.004061083,0.00369948,0.003430595,0.003266792,0.003130805,0.002933004,0.002636304,0.002577582,0.002518861,0.002481773,0.002339604,0.002160348,0.002163439,0.002104717,0.00177402,0.001752385,0.001718388,0.001770929,0.001665848,0.001449504,0.001359876,0.001094082,0.00103845,0.001239341,0.001026088,0.001220797,0.000998272,0.001032269,0.000785019,0.000664485,0.000686119,0.000621216,0.000605763,0.00063976,0.0004945,0.000658303,0.000488319,0.00054395,0.000649032,0.000386328,0.000241069,0.000250341,0.000333788,0.000333788,0.000302881,0.000207072,0.000188528,0.000241069,0.000139078,0.00024725,0.000166894,0.000145259,0.000123625,8.96E-05,8.34E-05,4.64E-05,1.85E-05,1.55E-05,1.24E-05,9.27E-06,6.18E-06,2.16E-05,3.4E-05,4.64E-05,4.95E-05,5.87E-05,7.11E-05,8.96E-05,9.89E-05,8.65E-05,6.18E-05,3.09E-05,3.71E-05,0.000166894,9.27E-05,6.18E-05,0.000126716,0,0.000123625,0.000114353,2.47E-05,6.8E-05,8.65E-05,0.000135988,5.87E-05,9.27E-05,0.000176166\nSRI-1053054-001.txt,OC(=O)C1CCCN(C1)C(=O)Cn1nc(ccc1=O)-c1ccc(Cl)cc1,0.573315348,0.553983102,0.536891638,0.522216706,0.508684133,0.49673329,0.48658386,0.478367655,0.471601369,0.467207677,0.465230515,0.465845632,0.469228775,0.474720891,0.483508276,0.494668254,0.508200827,0.524545363,0.542691312,0.563605288,0.586232804,0.610661734,0.636760267,0.664264781,0.693307088,0.722964512,0.753324927,0.784124711,0.814036969,0.843285779,0.870979222,0.896945944,0.920821269,0.942280063,0.961937443,0.977983207,0.990043893,0.997478021,1,0.997434084,0.989789059,0.977078107,0.960808264,0.940698333,0.917701747,0.892459984,0.865636492,0.8373499,0.80798246,0.778311856,0.748834573,0.719339716,0.691053124,0.662551241,0.633157439,0.602911261,0.570911999,0.538420643,0.505081305,0.472941445,0.443310384,0.416908686,0.393472731,0.372453306,0.353244083,0.334417111,0.316512814,0.299750878,0.284671725,0.271525798,0.260014323,0.249891256,0.240611778,0.231600315,0.22203964,0.211635376,0.201081727,0.19087518,0.181824173,0.17464488,0.169245032,0.165110567,0.162483139,0.16073445,0.159605271,0.15866502,0.158155352,0.157821432,0.157768707,0.15772477,0.157342519,0.156793308,0.156257277,0.155229153,0.154240572,0.152860953,0.151266042,0.149372361,0.147122791,0.144398701,0.141837179,0.138700082,0.135224671,0.131432915,0.127671914,0.123721985,0.119319505,0.115092773,0.110883615,0.106454774,0.101793066,0.097021516,0.092474044,0.087794762,0.082733228,0.078049552,0.073405419,0.068589932,0.064147909,0.05934121,0.054969486,0.050729573,0.046661013,0.042614423,0.038914934,0.035206657,0.031731247,0.028299773,0.025355999,0.022152997,0.019345428,0.016867385,0.014846287,0.01276807,0.01097105,0.009024644,0.007504427,0.006471909,0.005123045,0.00408174,0.003317238,0.00277242,0.002183665,0.001911256,0.001502643,0.001278564,0.001111604,0.001045699,0.001006156,0.000905101,0.000764502,0.000628298,0.000531637,0.000474519,0.000434976,0.000399826,0.000377858,0.000355889,0.000333921,0.00032074,0.000316346,0.000316346,0.000316346,0.000329527,0.000329527,0.000351495,0.000399826,0.000395432,0.000175748,0.000430582,0.000210897,0.000180141,0.000232866,0.000316346,6.59E-05,0.000241653,0.000193322,0.000127417,0.000136204,0,0.000188929\nSRI-0000668.txt,CC(=O)NCC(NC(C)=O)C(COC(C)=O)OC(C)=O,1,0.931788932,0.869530245,0.807271557,0.754504505,0.689350064,0.626287001,0.574646075,0.523487773,0.467181467,0.422779923,0.380469755,0.32480695,0.291505792,0.250643501,0.216698842,0.186454311,0.160553411,0.141409266,0.111969112,0.092342342,0.071428571,0.052606178,0.045527671,0.028635779,0.021718147,0.013835264,0.020109395,0.016087516,0.012870013,0.012870013,0.00997426,0.014478764,0.016409266,0.016248391,0.012387387,0.009491634,0.011422136,0.015444015,0.015926641,0.01528314,0.016570142,0.015604891,0.017696268,0.016087516,0.009009009,0.013513514,0.013996139,0.013996139,0.019305019,0.018500644,0.015604891,0.013996139,0.012226512,0.013674389,0.006917632,0.008687259,0.006917632,0.013674389,0.013030888,0.010939511,0.012548263,0.007239382,0.012870013,0.009330759,0.008043758,0.012870013,0.008043758,0.013674389,0.019787645,0.00997426,0.010135135,0.008687259,0.017696268,0.018500644,0.002734878,0.012870013,0.017213642,0.014478764,0.013513514,0.014157014,0.017696268,0.013030888,0.013191763,0.01463964,0.012065637,0.017857143,0.011100386,0.015122265,0.01029601,0.010135135,0.011261261,0.009813385,0.009009009,0.009330759,0.008365508,0.008526384,0.009009009,0.004504505,0.00530888,0.008204633,0.002895753,0.005630631,0.009009009,0.006274131,0.008526384,0.007561133,0.016570142,0.010939511,0,0.002252252,0.014800515,0.023005148,0.011904762,0.004021879,0.004504505,0.005952381,0.006435006,0.007400257,0.002734878,0.004826255,0.006917632,0.006274131,0.006274131,0.007882883,0.009330759,0.012387387,0.008365508,0.009813385,0.016570142,0.007400257,0.007078507,0.017052767,0.009330759,0.012065637,0.010617761,0.010939511,0.01029601,0.012709138,0.011904762,0.010778636,0.009330759,0.004504505,0.00965251,0.007400257,0.007561133,0.007722008,0.007078507,0.007239382,0.007239382,0.006595882,0.006595882,0.006917632,0.007078507,0.006595882,0.005952381,0.005952381,0.005791506,0.005791506,0.005630631,0.00530888,0.005469755,0.005630631,0.005630631,0.006274131,0.008365508,0.011261261,0.017374517,0.012709138,0.001287001,0.011261261,0.007722008,0.011422136,0.008204633,0.00997426,0.008848134,0.00466538,0.010939511,0.006595882,0.00498713,0.01029601\nSRI-1053322-001.txt,OC(=O)C1CCN(C1=O)c1ccc(Oc2ccccc2)cc1,0.619586942,0.601167849,0.585492025,0.57255947,0.562370185,0.553356586,0.546694361,0.542383509,0.540737548,0.541286201,0.544499745,0.550260611,0.55923502,0.570952698,0.584551475,0.600305679,0.619312615,0.639808755,0.662695458,0.687149743,0.712622957,0.738409688,0.765528863,0.792295333,0.81835639,0.844535016,0.869342007,0.892620606,0.914723518,0.934866951,0.952733472,0.967672532,0.98006819,0.989802877,0.996179018,0.999862837,1,0.996206451,0.98896422,0.978363444,0.96471372,0.94793667,0.928459458,0.905835325,0.880675628,0.852651174,0.822847513,0.791488028,0.758862719,0.725704432,0.691574245,0.655680527,0.617474625,0.578512364,0.539538347,0.50168907,0.466226437,0.433663832,0.403029353,0.373550966,0.344342987,0.316001097,0.288635028,0.262777756,0.239271858,0.217705843,0.197715249,0.179260885,0.162229102,0.14605949,0.131179214,0.116765294,0.103499628,0.091570326,0.080832386,0.071066348,0.062127209,0.05371713,0.046137869,0.038985774,0.032300035,0.026115923,0.020723439,0.016075557,0.012383901,0.009456441,0.007054121,0.005365051,0.004161931,0.003225301,0.002519889,0.002159345,0.001716503,0.001457852,0.001395148,0.001093389,0.001038523,0.001109065,0.000842576,0.000783791,0.000850413,0.000815143,0.000760277,0.000627033,0.000693655,0.0005996,0.000591762,0.000603519,0.00052514,0.000697574,0.0005996,0.000348787,0.000521221,0.000438923,0.000493788,0.000532978,0.000297841,0.000415409,0.000415409,0.000529059,0.000627033,0.00056433,0.000446761,0.000352706,0.000435004,0.000603519,0.000568249,0.000552573,0.000333111,0.000431085,0.000454599,0.00037622,0.00030176,0.000517302,0.000474194,0.000466356,0.000372301,0.00026257,0.000184191,0.00033703,0.000266489,0.000152839,0.00041149,0.000435004,0.000176353,0.00014892,0.00014892,0.000184191,0.000211624,0.000207705,0.000192029,0.000176353,0.000156758,0.000133245,0.000117569,0.000101893,9.01E-05,8.23E-05,7.05E-05,5.88E-05,5.09E-05,4.31E-05,3.53E-05,4.31E-05,5.09E-05,6.27E-05,3.53E-05,7.45E-05,0.000242975,0.000203786,9.41E-05,6.66E-05,0,0.000160677,0.000352706,6.27E-05,0,0,0.000192029,3.92E-05,0.000152839\nSRI-1052750-001.txt,Cc1ccc(cc1)S(=O)(=O)C(CNC(=O)CCCN1C(=O)c2ccccc2C1=O)c1cccs1,0.991118077,1,1,0.989550679,0.964472309,0.925548589,0.875130617,0.820271682,0.76645768,0.718390805,0.680094044,0.651776385,0.63045977,0.611624869,0.59137931,0.568547544,0.544958203,0.52246604,0.502742947,0.48631139,0.473145246,0.46146813,0.446238245,0.42254441,0.389968652,0.353448276,0.318756531,0.289174504,0.265689655,0.24745559,0.233066876,0.221125914,0.210540752,0.200786311,0.191355799,0.1821186,0.172677638,0.163364681,0.15388976,0.144028213,0.134184953,0.124548067,0.115569488,0.107225705,0.099511494,0.09219697,0.085128004,0.078398642,0.07223093,0.066619645,0.061687565,0.05734326,0.053678161,0.051099791,0.049738767,0.048693835,0.047693312,0.046225183,0.044595089,0.043134796,0.042293626,0.042079415,0.042246604,0.042894462,0.043636364,0.044532393,0.045475444,0.046475967,0.047591432,0.048759143,0.049950366,0.051060606,0.052071578,0.052897074,0.053265413,0.05365465,0.053730408,0.053565831,0.053521421,0.053249739,0.052782132,0.052149948,0.051413271,0.050527691,0.049464472,0.047899687,0.046133751,0.0442372,0.041920063,0.039393939,0.036909613,0.034245037,0.0317372,0.029224138,0.026812957,0.024670846,0.022748171,0.020849007,0.019289446,0.017865726,0.016776385,0.015710554,0.014772727,0.013949843,0.013322884,0.012860502,0.012369383,0.011980146,0.011588297,0.011269592,0.01096395,0.010731452,0.010506792,0.010360502,0.010203762,0.01003396,0.009743992,0.009584639,0.009524556,0.009315569,0.009017764,0.00884535,0.008599791,0.008333333,0.008032915,0.007865726,0.007648903,0.007366771,0.007131661,0.006946186,0.00653605,0.006387147,0.006065831,0.005830721,0.005530303,0.005248171,0.004864159,0.004636886,0.004362591,0.004083072,0.003777429,0.003424765,0.003205329,0.003040752,0.002706374,0.002442529,0.002238767,0.0021186,0.001974922,0.001721526,0.001455068,0.001225183,0.001060606,0.000958725,0.000893417,0.000833333,0.000770637,0.000705329,0.000634796,0.000559039,0.000483281,0.000389237,0.000287356,0.0001907,0.000117555,6.01E-05,0,7.31E-05,0,6.53E-05,0,8.1E-05,5.49E-05,0,5.22E-05,0,0,4.7E-05,1.04E-05,4.44E-05,7.84E-05\nSRI-1053332-001.txt,CCCCC(NS(=O)(=O)c1ccc(F)cc1)C(O)=O,0.953817405,0.971302723,0.985718099,0.995194875,1,0.99719701,0.985184196,0.963561132,0.931526962,0.890816871,0.841564335,0.786305392,0.726775227,0.662573412,0.597036839,0.532167645,0.469967966,0.4104378,0.356380139,0.307661506,0.266017085,0.230779498,0.200747464,0.175920982,0.156033102,0.140416444,0.128136679,0.117058195,0.1093433,0.102589429,0.096983449,0.091791244,0.088174052,0.084596903,0.081954084,0.079631607,0.077736252,0.076268019,0.075427122,0.075480513,0.075226909,0.074265884,0.07445275,0.075694074,0.076067806,0.075707421,0.074839829,0.073278163,0.071382808,0.068192739,0.063441004,0.05856914,0.054444741,0.053123332,0.053096636,0.052349172,0.048585158,0.040443139,0.030979712,0.021783235,0.015843566,0.011025093,0.007688201,0.004564869,0.003363588,0.002936466,0.002055526,0.001534971,0.001721837,0.001534971,0.001508275,0.001081153,0.001121196,0.000787507,0.001241324,0.001041111,0.000894287,0.000680726,0.000640683,0.000627336,0.000640683,0.000613988,0.000480513,0.000306994,0.00044047,0.000734116,0.000533903,0.000413775,0.000467165,0.000627336,0.000613988,0.000347037,0.000320342,0.000507208,0.000854245,0.000320342,0.000133476,0.000680726,0.000480513,0.000520555,0.000293647,0.000600641,0.000453817,0.000507208,0.000347037,0.000800854,0.000427122,0.000680726,0,5.34E-05,0.00038708,0.000306994,0.000707421,0.000774159,0.000600641,0.000467165,0.000280299,0.000760812,0.000280299,0.000306994,0.000200214,0.000573946,0.000520555,0.00038708,0.000854245,0.000734116,0.000654031,0.00088094,0.000800854,0.000694074,0.000814202,0.001067806,0.000800854,0.000694074,0.000573946,0.000707421,0.00088094,0.000413775,0.000133476,0.000640683,0.000533903,0.000413775,0.000947678,0.000774159,0.000253604,0.000160171,0.000226909,0.000400427,0.00049386,0.000520555,0.000480513,0.000427122,0.00038708,0.000347037,0.000293647,0.000266951,0.000226909,0.000213561,0.000200214,0.000186866,0.000160171,0.000133476,0.000120128,4E-05,1.33E-05,0.000146823,0.000186866,0.000654031,0.001147891,0.000347037,0.000293647,0.000734116,0.000347037,0.000854245,0.000907635,0.000266951,9.34E-05,0.000827549,0.000667379,0.000173518,0.000280299\nSRI-1052825-001.txt,CC(C)OC(=O)C1=C(C)NC(C)=C(C1c1cccc(Oc2ccccc2)c1)C(=O)OC(C)C,0.963964892,0.966538828,0.9716867,0.979408509,0.981982446,0.992278191,0.994852127,0.997426064,0.997426064,1,0.994852127,0.989704255,0.981982446,0.9716867,0.958817019,0.938225528,0.920207974,0.907338292,0.891637281,0.873362333,0.852256055,0.823170575,0.794342488,0.760109135,0.723301846,0.685464982,0.647370724,0.609791254,0.57195439,0.534889707,0.498597205,0.463591671,0.430645286,0.397956295,0.366296878,0.337314355,0.311060204,0.28454866,0.261074361,0.239581993,0.218964763,0.201127384,0.183804793,0.170291627,0.15644385,0.144680961,0.135440529,0.12571105,0.118658464,0.113098762,0.107796453,0.103369283,0.099765772,0.096085043,0.092790404,0.089984814,0.087796968,0.086020952,0.086407042,0.086046691,0.085428946,0.083781627,0.081516563,0.07600834,0.074052148,0.070963424,0.067179738,0.064348408,0.060719158,0.057733392,0.054207099,0.051555945,0.047772258,0.048235567,0.046922859,0.046176418,0.04687138,0.049033487,0.049007748,0.050474891,0.053589354,0.055056498,0.055802939,0.059097578,0.062572392,0.065738334,0.068363749,0.071014903,0.073537361,0.077321047,0.079483154,0.082649095,0.087359399,0.090267947,0.094334766,0.097346272,0.100924043,0.104450336,0.108954724,0.112506757,0.116959666,0.120074129,0.124166688,0.129366039,0.134333737,0.138014466,0.141952588,0.143419732,0.148953695,0.153766956,0.157833775,0.162338164,0.166636637,0.170857893,0.175619675,0.180072585,0.184551234,0.187691437,0.191449384,0.194795501,0.199016756,0.203083576,0.206893001,0.209569895,0.21219531,0.215773082,0.21785797,0.219016242,0.221641657,0.222954364,0.223726545,0.224498726,0.223803763,0.223803763,0.224215593,0.222594013,0.221332784,0.220251731,0.217729273,0.215644385,0.212169571,0.20815423,0.204988289,0.201487735,0.19685465,0.192427479,0.189493192,0.187331085,0.183856271,0.176417595,0.167820648,0.159789967,0.153277908,0.148258732,0.14432061,0.14066562,0.136907673,0.132712157,0.127976114,0.122596587,0.116470619,0.109469512,0.101181437,0.091374739,0.080770122,0.071349515,0.064039536,0.057244344,0.050886721,0.046253636,0.040307843,0.035237188,0.030166534,0.025636406,0.021775501,0.017837379,0.012869682,0.00846825,0.004916218,0.001878974,0\nSRI-1052835-001.txt,Cc1cc(OCC(=O)N[C@@H](Cc2c[nH]c3ccccc23)C(O)=O)c2c(C)c(C)c(=O)oc2c1,1,0.985968584,0.96180601,0.926132918,0.880067065,0.821658323,0.753808103,0.680178841,0.604623233,0.530946407,0.463096187,0.403593469,0.353009025,0.311105033,0.277382071,0.250865072,0.230103333,0.21426448,0.201850244,0.192266074,0.184655814,0.179019466,0.174928951,0.172194014,0.170362795,0.168983436,0.167508948,0.165820422,0.163917857,0.162253112,0.16123524,0.161308965,0.162671677,0.165194953,0.168360346,0.171304565,0.172997848,0.173133405,0.171511469,0.168928737,0.166728896,0.165751454,0.166876345,0.169953744,0.174981272,0.181376268,0.188858104,0.197072428,0.205655374,0.214523705,0.223294529,0.232082001,0.240667325,0.249143251,0.257131646,0.264477924,0.271507902,0.278376161,0.285415651,0.292728635,0.300288952,0.307411679,0.313716304,0.318877011,0.322392,0.324197058,0.324130468,0.324047231,0.325892719,0.329766817,0.3342973,0.337358051,0.336863384,0.332147401,0.325167366,0.317920972,0.311509329,0.306750538,0.304077434,0.302809851,0.302381773,0.303385376,0.305102441,0.307737494,0.311297668,0.315535631,0.320082762,0.324827283,0.329754926,0.334128447,0.338283173,0.342466438,0.345812574,0.348889972,0.35158448,0.353960308,0.355629808,0.356790373,0.357344495,0.356837937,0.355187462,0.351834191,0.34771276,0.341831457,0.33446853,0.326118649,0.316703331,0.306329596,0.295561078,0.284423939,0.273389063,0.262209116,0.251003008,0.239594754,0.227863063,0.215986302,0.203541149,0.190634624,0.177188247,0.163018895,0.148392927,0.133988133,0.119374056,0.105088172,0.091480077,0.078766187,0.066970284,0.05667503,0.04751418,0.039597132,0.032843027,0.027142466,0.022314708,0.01834786,0.014951782,0.012304838,0.010038408,0.008185785,0.006727945,0.005560246,0.004623233,0.003921662,0.003243873,0.002787258,0.002475713,0.002199841,0.002052392,0.002007206,0.001947751,0.001764629,0.001541078,0.001341308,0.001191481,0.001096353,0.001032141,0.000986956,0.000948904,0.000908475,0.000870423,0.000832372,0.000791943,0.000749135,0.000699193,0.000644494,0.000592173,0.000558878,0.000570769,0.00053034,0.000413808,0.000330571,0.000390026,0.000285385,0.000330571,0.000292519,0.000254468,0.000237821,3.57E-05,0,0.000137936,0.000109397,0.000123667\nSRI-1053185-001.txt,OC(=O)C(Cc1ccc(Cl)cc1)NS(=O)(=O)c1ccccc1,0.993393705,1,0.993901881,0.977640231,0.952231403,0.916659044,0.868382271,0.808010895,0.735697371,0.654643209,0.57008263,0.489587462,0.415596955,0.35131262,0.295464016,0.248864225,0.209836266,0.177312966,0.15032879,0.128070657,0.109471395,0.094886727,0.082995396,0.073035135,0.06490431,0.058298015,0.052911344,0.048337754,0.04452643,0.041629824,0.039246476,0.03764572,0.036832637,0.036431178,0.036461668,0.036919027,0.037193442,0.037879481,0.03971908,0.042066856,0.043769247,0.044892317,0.044800846,0.045110833,0.046442256,0.049033956,0.05195089,0.053485583,0.052093179,0.048617252,0.045314104,0.043286479,0.043499914,0.044394304,0.044252015,0.041213119,0.036278725,0.030719273,0.025490136,0.02072344,0.016840971,0.01387322,0.011708388,0.010483682,0.009772235,0.009004889,0.0087508,0.008445894,0.008054598,0.007475277,0.007617567,0.00742446,0.007134799,0.006972182,0.006733339,0.006728258,0.006469088,0.006204836,0.006154018,0.006154018,0.005960911,0.005772886,0.005625515,0.005656005,0.005346017,0.005097011,0.004914067,0.004578671,0.004502444,0.004217865,0.004095903,0.004024758,0.003846897,0.003887551,0.003989186,0.003801161,0.003618217,0.003455601,0.002967751,0.002698418,0.002429084,0.001890417,0.001575347,0.001204378,0.00100619,0.000818164,0.000665711,0.00060473,0.000218516,0.000330315,0.000360805,0.000233761,0.000340478,0.000452277,0.000538667,5.08E-05,0.000254088,0.000254088,0.000218516,0.000304906,0.000279497,0.000325233,0.000228679,0.000325233,0.000335397,0.000513258,0.000157535,0.000152453,0.000411623,0.000386214,0.000442114,0.000127044,0.000157535,0.000294742,0.000386214,0.000472604,0.00051834,0.000309988,2.03E-05,0.000335397,0.000218516,0.000116881,0.000228679,0.000335397,0.000320151,0.000320151,0.000315069,0.000289661,0.000264252,0.000223598,0.000177862,0.000147371,0.000152453,0.000147371,0.000132126,0.000132126,0.000132126,0.000127044,0.000121962,0.000132126,0.000147371,0.000157535,0.000147371,0.000162616,0.000203271,0.000238843,0.000294742,0.000543749,0.000370969,0,0.000304906,0.000401459,0.000127044,0.000309988,0.000193107,1.02E-05,0.000279497,0.000381132,0.000421787,0.000482768,0.000157535\nSRI-031145.txt,COC(=O)C1CN(CC2=C1C=CC=C2)S(=O)(=O)C1=CC=C(OC2=CC=CC=C2C)C=C1,0.868516082,0.867209907,0.858170836,0.849100984,0.845472581,0.841554366,0.836491044,0.839233173,0.852745825,0.861204226,0.868727778,0.881079557,0.896180959,0.912030087,0.933624194,0.954517848,0.972373336,0.985842947,0.993487385,0.997815925,1,0.99441381,0.982798991,0.972317725,0.962735756,0.950237942,0.93847413,0.929665328,0.919949517,0.906401215,0.896552136,0.888386259,0.882052685,0.879194793,0.876010824,0.871150628,0.867074548,0.86475988,0.864010726,0.866212925,0.872282183,0.877846313,0.883653067,0.890324,0.893480636,0.896120127,0.898452434,0.898266834,0.893965041,0.885192583,0.870859652,0.852968939,0.832671902,0.810202921,0.786389417,0.760598301,0.728443489,0.693101891,0.660377274,0.629066695,0.593101265,0.543252922,0.4791365,0.4078651,0.336435346,0.270710617,0.214456179,0.168473507,0.131859079,0.103520739,0.081909318,0.065582799,0.053193371,0.043663791,0.036357506,0.030782103,0.026340449,0.022795254,0.02003722,0.017738843,0.01587857,0.014322256,0.013014013,0.011961242,0.011075886,0.010336475,0.009711451,0.009188126,0.008754873,0.008354605,0.007949056,0.007614605,0.007356978,0.007104567,0.006871397,0.006701521,0.006536606,0.00638115,0.006301234,0.006239659,0.006134231,0.00605745,0.005994433,0.005890301,0.005905412,0.005842636,0.005582582,0.005257008,0.005031691,0.004818219,0.004709544,0.004652545,0.00456514,0.004498671,0.004454718,0.004420195,0.004390013,0.004368064,0.004354107,0.004332572,0.004312179,0.004290077,0.004258421,0.004230513,0.004216926,0.004214329,0.004189271,0.0041296,0.004083232,0.004041438,0.004004529,0.003970142,0.00392799,0.003884534,0.0038461,0.003782016,0.003711109,0.003674895,0.003601835,0.003515746,0.003424027,0.003343259,0.003295739,0.003195489,0.003097344,0.003025465,0.002941885,0.002829038,0.002707113,0.002622233,0.002540105,0.002422909,0.002334833,0.002259346,0.002165093,0.002056895,0.001960895,0.001874239,0.001770689,0.001662198,0.001582151,0.001513428,0.001372066,0.00125643,0.001159039,0.001072312,0.0010498,0.000932482,0.00077446,0.000697484,0.000684564,0.000604812,0.000524808,0.000457102,0.00036382,0.000270012,0.000263,0.000201495,0.000102052,3.97E-05,0\nSRI-0000419.txt,CCCCCNC1=CC=C(C=C1)S(=O)(=O)C1=CC=C(N)C=C1,0.482271566,0.438013707,0.397549379,0.355820541,0.316620723,0.282478946,0.25086619,0.220517943,0.197756759,0.178789105,0.162350472,0.15223439,0.142118308,0.137186718,0.135795756,0.135416403,0.136554462,0.139083483,0.143382818,0.148946663,0.155269214,0.161718217,0.169305278,0.177398144,0.185996813,0.195607091,0.205976075,0.217230217,0.229622417,0.243279128,0.258959055,0.276029944,0.294618244,0.315748211,0.338610556,0.362130447,0.387370072,0.412938469,0.439189702,0.465719127,0.491489846,0.51546496,0.537075441,0.555701677,0.569573354,0.578741054,0.582319618,0.579828532,0.571975924,0.559002049,0.544207279,0.529058446,0.514061354,0.502769277,0.49563744,0.493159,0.496016793,0.503275082,0.515148833,0.530714954,0.549379125,0.570015933,0.591879315,0.616284363,0.639816899,0.664449559,0.689663893,0.714764422,0.73916947,0.763245745,0.787473761,0.809842948,0.83225007,0.853696163,0.873814522,0.893578817,0.911193445,0.928062012,0.9438431,0.957866518,0.969449432,0.980615058,0.989036696,0.995030475,0.998533168,1,0.997837687,0.992842872,0.982891176,0.969955236,0.952327963,0.930451936,0.904795023,0.873460459,0.838028881,0.799145191,0.756657646,0.71025012,0.661781442,0.611529805,0.56044359,0.510014921,0.458802256,0.409359905,0.361814319,0.317202398,0.275170077,0.236248451,0.20219519,0.170620369,0.143306947,0.119015705,0.097696062,0.080865431,0.065438406,0.052907109,0.04257606,0.034394679,0.02713639,0.021901318,0.018158367,0.014680964,0.011684075,0.009281505,0.008016995,0.006297261,0.005386814,0.004843074,0.003919982,0.003401533,0.003034825,0.003110695,0.002604891,0.001820895,0.00188412,0.001403606,0.002465795,0.00121393,0.000821932,0.001049544,0.000872512,0.000746061,0.000847222,0.000834577,0.000986318,0.000935738,0.000998963,0.001112769,0.001087479,0.000961028,0.000821932,0.000733416,0.00067019,0.000657545,0.00061961,0.00059432,0.00059432,0.000606965,0.000606965,0.000606965,0.000581675,0.000556385,0.000543739,0.000556385,0.00059432,0.000391998,0.000214967,0.000404643,0.000847222,0.000758706,0.000379353,0.000632255,0.000303482,0.000354063,0.000303482,0.000429933,0.000809287,0.000720771,0.000923092,0,0.000632255\nSRI-1053374-001.txt,COc1ccc(NS(=O)(=O)CCC(O)=O)cc1,0.23538489,0.256964041,0.281924541,0.310450826,0.342481418,0.378385191,0.416809605,0.458922764,0.503433606,0.550096215,0.598726154,0.6482168,0.69740005,0.746337385,0.79392218,0.838064147,0.87925512,0.91534333,0.946574694,0.971658152,0.98948708,0.999016335,1,0.99213068,0.974855063,0.947386218,0.911341043,0.866903976,0.814745139,0.755768273,0.691043115,0.624270705,0.557209342,0.492717805,0.432910972,0.379497962,0.33275543,0.293003068,0.259712155,0.23312246,0.211610936,0.194439834,0.180674671,0.168969058,0.158505321,0.148865404,0.13977265,0.132026288,0.125724684,0.12036371,0.115383906,0.110539356,0.104403745,0.097081589,0.088652809,0.079855155,0.071500151,0.06419029,0.059044492,0.056044314,0.054003209,0.051310426,0.046478172,0.039764658,0.032848264,0.026276152,0.021277904,0.017423167,0.015105406,0.013347105,0.011963826,0.010697357,0.009996496,0.009590734,0.009062014,0.009086606,0.008441075,0.008004574,0.007647995,0.007383636,0.00745741,0.007039353,0.007045501,0.006744253,0.006627443,0.006178646,0.005828215,0.00566837,0.005004396,0.005201129,0.004826106,0.004838402,0.004776923,0.004672409,0.004893733,0.004881438,0.00422976,0.004039174,0.003793258,0.003387496,0.002858776,0.002342352,0.001764449,0.001580012,0.001278765,0.000977517,0.001020552,0.000866855,0.000633234,0.000823819,0.00064553,0.00038117,0.00052872,0.000331987,0.00052872,0.000510276,0.000516424,0.000541016,0.00064553,0.000627086,0.000534868,0.00038117,0.000491833,0.000534868,0.000504128,0.000338135,0.000688566,0.000608643,0.000344283,0.000350431,0.000307395,0.000688566,0.000510276,0.00049798,0.000510276,0.000485685,0.000547164,0.000190585,0.000307395,0.000375022,0.000301247,0.000454945,0.000276656,0.000325839,0.000209029,0.000227473,0.000245916,0.000227473,0.000184437,0.00014755,0.000159846,0.000165993,0.000165993,0.000159846,0.00014755,0.000141402,0.000122958,9.84E-05,7.99E-05,7.99E-05,7.38E-05,7.99E-05,7.99E-05,9.22E-05,0.000129106,0.000209029,0.000159846,0.000184437,0.000215177,0.000276656,0,0.000209029,0.000350431,0.000467241,0.000368874,0.000135254,0.000282804,0.000153698,0.000159846,0.000387318,0.000356579\nSRI-1053364-001.txt,CC(C)C[C@H](NS(=O)(=O)c1ccccc1)C(O)=O,0.99165539,1,0.997180875,0.985227785,0.964817321,0.935611186,0.895805142,0.849233198,0.796571944,0.73737032,0.677604871,0.615133063,0.552774019,0.493346865,0.435272891,0.382273342,0.332656743,0.287550744,0.24819576,0.213013081,0.182679296,0.156856112,0.134979702,0.117839423,0.103631033,0.092692828,0.083784393,0.076792963,0.071538115,0.067456022,0.064794768,0.063340099,0.063362652,0.064197113,0.064727109,0.064975192,0.065584123,0.067377086,0.069959405,0.074075327,0.076668922,0.076973387,0.075890843,0.074898512,0.077379341,0.083062697,0.087359044,0.086862878,0.079871448,0.070624718,0.063452864,0.061659901,0.064152007,0.067861976,0.066666667,0.057803338,0.044542174,0.031044204,0.021718539,0.015245828,0.01079161,0.008592693,0.006856112,0.005683356,0.004916554,0.003958051,0.003518268,0.002683807,0.002807848,0.002131258,0.002345512,0.001984664,0.001296797,0.00135318,0.00067659,0.001420839,0.000811908,0.000529995,0.000800631,0.00086829,0.000496166,0.000597654,0.000394677,0.000563825,0.00041723,0.000180424,0.000383401,0.000958502,0.000811908,0.000563825,0.000845737,0.000428507,0.000236806,0.000394677,0.00041723,0.000293189,0.000732972,0.000778078,0.000845737,0.000327018,0.000766802,0.000845737,0.000597654,0.000214253,0.00045106,0.000620207,0.000766802,0.000981055,0.000180424,0.00109382,0.000665313,0.000473613,0.000811908,0.000789355,0.000563825,0.000327018,0.000631484,0.000755525,0.000552548,0.000394677,0.000913396,0.000552548,0.000778078,0.000778078,0.00086829,0.000947226,0.001285521,0.000721696,0.000202977,0.00067659,0.000383401,0.001003608,0.000845737,0.000563825,0.000304465,0.000383401,0.000834461,0.000823184,0.000405954,1.13E-05,0,0.000620207,0.000755525,0.000338295,0.000631484,0.000496166,0.000270636,0.00022553,0.000270636,0.000304465,0.000304465,0.000293189,0.000270636,0.000270636,0.000281912,0.000281912,0.000270636,0.000259359,0.000248083,0.000236806,0.00022553,0.00022553,0.000236806,0.000236806,0.000270636,0.000394677,0.000214253,0.000236806,9.02E-05,0.000135318,0.000394677,0.000101488,0.000202977,0.000721696,0.000575101,0.000518719,0.000439783,0.00045106,0.000360848,0.000631484,0.000529995\nSRI-1053012-001.txt,CCC(NC(=O)c1cc2ccccc2[nH]1)C(=O)NCCc1c[nH]c2ccccc12,0.985799265,0.996393464,1,0.996618873,0.984221405,0.963258415,0.931025,0.887971977,0.834099347,0.772562827,0.707419771,0.643245973,0.581484044,0.524455695,0.473175262,0.42802594,0.389458546,0.358397255,0.334233465,0.316922092,0.305877076,0.300625058,0.30042219,0.304479543,0.311985646,0.322489682,0.335653538,0.350981316,0.368653342,0.388354045,0.409046545,0.430482893,0.4510965,0.469751307,0.485405927,0.497566715,0.506835513,0.513717234,0.518779909,0.522995048,0.525598516,0.525492574,0.520188712,0.506039821,0.481267427,0.447537299,0.408539375,0.369133462,0.332608269,0.301278742,0.275965368,0.256048273,0.2408332,0.229051098,0.219915291,0.212402426,0.206072956,0.200843479,0.196950674,0.194568106,0.193447826,0.193139016,0.193120984,0.193204385,0.192978976,0.191924064,0.189717315,0.186895201,0.184537428,0.18357268,0.183640302,0.183608745,0.18204441,0.178043409,0.172065576,0.165488156,0.159462987,0.154727154,0.150850128,0.147579451,0.144315536,0.140873548,0.137593854,0.134613954,0.132147985,0.130419102,0.129636935,0.129907425,0.13110209,0.133038349,0.135851447,0.139187493,0.143156936,0.147613262,0.152376144,0.157621399,0.16326112,0.169426042,0.175827644,0.182389285,0.189126745,0.19564105,0.201803719,0.207371309,0.21197415,0.215585194,0.218290096,0.220037012,0.221312824,0.222169376,0.222823061,0.223402361,0.223882481,0.224258913,0.224085349,0.222895192,0.220172257,0.215202,0.207648561,0.19702055,0.183692146,0.167938346,0.150687834,0.132628105,0.114554852,0.097164587,0.081135788,0.066587924,0.054113818,0.043506094,0.034823359,0.027603524,0.021621183,0.016790679,0.013010578,0.010192972,0.007916346,0.006149144,0.004776406,0.003748543,0.002955105,0.002269864,0.001780727,0.001469663,0.001246509,0.001045895,0.000967002,0.000937699,0.000892618,0.000748356,0.000599587,0.00046885,0.000365162,0.000299793,0.000254712,0.000225408,0.000200614,0.000189343,0.000184835,0.000180327,0.000178073,0.000173565,0.00017131,0.00016004,0.000137499,0.000114958,0.00011045,0.000180327,0.000126229,0.000189343,0.000164548,4.96E-05,6.99E-05,0,3.16E-05,2.03E-05,8.79E-05,5.86E-05,6.76E-06,3.61E-05,4.06E-05\nSRI-002503.txt,OC(=O)C1=CC(=O)C2=CC(Cl)=CC=C2N1,0.582738203,0.574830967,0.565539781,0.558550758,0.552949369,0.547681072,0.546115838,0.548601495,0.556031202,0.568605401,0.586819309,0.611003069,0.640763899,0.67494777,0.711929019,0.750027451,0.787568765,0.823779187,0.857587962,0.881562434,0.903855238,0.931334539,0.955300169,0.974864866,0.989349182,0.997883543,1,0.99536325,0.984471457,0.968342318,0.947401777,0.920766258,0.885046629,0.85032259,0.805705295,0.734031695,0.651734544,0.564984138,0.479824022,0.400610176,0.3302741,0.270403136,0.221184464,0.181887051,0.1510901,0.127125208,0.108507463,0.097222151,0.088066559,0.078251418,0.070801814,0.065263802,0.061283655,0.058554811,0.056834084,0.055857655,0.055541513,0.055611521,0.055978511,0.056519416,0.056994735,0.057503952,0.058245301,0.059066976,0.060076567,0.061303552,0.062798041,0.064555614,0.06657627,0.068735469,0.070998574,0.073193882,0.075272755,0.076235183,0.077992756,0.079532198,0.080871933,0.08220872,0.083656046,0.085383405,0.087515337,0.090193333,0.093359912,0.096869162,0.100701924,0.10269384,0.106774209,0.111003438,0.115306359,0.119699186,0.124261506,0.12897637,0.134037591,0.139484961,0.145347959,0.151712804,0.156742337,0.162136649,0.169688685,0.177606237,0.185668228,0.19361231,0.201159924,0.208133472,0.214449681,0.220159397,0.225369477,0.229149917,0.233078479,0.237843454,0.242584848,0.249186247,0.25714212,0.265332336,0.273809217,0.28156833,0.287552921,0.291035642,0.291750462,0.290638437,0.286819677,0.28068549,0.273182091,0.265155473,0.257886417,0.251996153,0.248100753,0.245916499,0.245141251,0.244930489,0.244469172,0.242750657,0.238867784,0.232109419,0.221999506,0.208788601,0.192991816,0.175380715,0.156944992,0.138640442,0.129773726,0.113038832,0.098041614,0.084946407,0.073734787,0.064378014,0.056531207,0.049822216,0.044065336,0.038928212,0.035348217,0.032034252,0.027819025,0.024024584,0.020397425,0.017192526,0.014453365,0.011938231,0.009805562,0.008019985,0.006904277,0.00586005,0.004731814,0.003762753,0.003052355,0.002316164,0.001899063,0.001451748,0.001126026,0.000907895,0.000692712,0.000589542,0.000479003,0.000387624,0.000297719,0.000275611,0.000116435,0.000193812,5.45E-05,0,5.67E-05\nSRI-1053002-001.txt,O=C(C[C@@H]1NC(=O)N(Cc2ccccc2)C1=O)NCCc1c[nH]c2ccccc12,0.998774514,1,0.993980702,0.97837378,0.951629355,0.909710533,0.850418648,0.774943141,0.686527946,0.590327313,0.494018548,0.405459179,0.327676875,0.262545911,0.210570896,0.170310084,0.140177551,0.117686283,0.101466618,0.08921176,0.080561272,0.074253625,0.069640032,0.066287968,0.063945127,0.062539423,0.062034811,0.061962724,0.062539423,0.063736074,0.065210261,0.067279169,0.069661658,0.072527132,0.075471902,0.078820362,0.082702268,0.086771602,0.091046385,0.095393255,0.09971129,0.103950029,0.108412239,0.112996998,0.117689887,0.122000714,0.126293518,0.130470983,0.134489856,0.138288861,0.141633717,0.144726266,0.147797189,0.150356292,0.152421596,0.154440043,0.155849352,0.157219012,0.158581464,0.160556659,0.162665215,0.164633201,0.165912753,0.165851478,0.164308808,0.160845008,0.155896209,0.150114799,0.145710259,0.143320562,0.142671775,0.140732624,0.135967647,0.126870217,0.114348636,0.100634009,0.087160874,0.075241222,0.064864241,0.055824482,0.04791289,0.041154696,0.035218299,0.03003161,0.025536961,0.021846086,0.018681449,0.015963754,0.013581266,0.011872795,0.010193158,0.008884772,0.007767417,0.006783424,0.006008485,0.00532005,0.004782999,0.004534297,0.004242343,0.003889115,0.003665644,0.003644018,0.003492634,0.00337369,0.003182659,0.00323312,0.003283581,0.003168241,0.003013253,0.002930353,0.002995231,0.002930353,0.00286187,0.002764552,0.002663629,0.002537476,0.002526663,0.002476202,0.002505037,0.002353654,0.002223896,0.002140996,0.002072513,0.00211937,0.002054491,0.002112161,0.001931942,0.001528253,0.001805789,0.001906712,0.001676032,0.001513835,0.001521044,0.001398496,0.001272343,0.001355243,0.001189442,0.001142585,0.001279551,0.001027245,0.000940741,0.000908301,0.000980389,0.000792961,0.00080017,0.000764126,0.00071727,0.000677622,0.000609139,0.000501007,0.000396481,0.00031358,0.000252306,0.000223471,0.000205449,0.00019824,0.000191032,0.000180218,0.000158592,0.000133362,0.000108131,7.57E-05,6.13E-05,8.29E-05,0.000100922,0.000118944,0.000169405,0.00025591,2.16E-05,8.65E-05,7.57E-05,9.37E-05,9.73E-05,0.000104527,0.000108131,6.49E-05,7.21E-05,0.000108131,4.33E-05,0,0.000144175\nSRI-0000141.txt,NC1=NC2=C(CC(CC2)C(=O)NC2=CC=C(Cl)C=C2)C(O)=N1,0.499970709,0.512273036,0.525505791,0.540254799,0.555141649,0.570648784,0.587017427,0.604006354,0.621443266,0.639741686,0.658350248,0.676855429,0.696428879,0.71607125,0.736333907,0.756389801,0.776859219,0.79756986,0.818383881,0.839197902,0.859701781,0.87920631,0.898297317,0.916182212,0.933067759,0.948929835,0.963055112,0.975684812,0.986022902,0.993804038,0.998435502,1,0.997928936,0.99282192,0.984072449,0.972211214,0.956748877,0.938126531,0.916537153,0.890905582,0.86217603,0.830338159,0.795939887,0.759098381,0.721150698,0.682465566,0.643294543,0.604809279,0.566940856,0.529606567,0.494339896,0.460348256,0.428017602,0.397072253,0.367767214,0.339881939,0.313640421,0.289225298,0.266350551,0.244988611,0.224560545,0.204701074,0.185251681,0.166050402,0.147631371,0.130197906,0.113949874,0.099497224,0.086939891,0.076208953,0.06662899,0.058282705,0.050749684,0.044043709,0.037806395,0.032523631,0.027864599,0.024077412,0.020941524,0.018388016,0.016106744,0.014311363,0.012843354,0.011361561,0.010100314,0.008818391,0.007663971,0.006778341,0.005844467,0.004941607,0.00431443,0.003769957,0.003339203,0.002922233,0.002505264,0.002181337,0.002009035,0.001984913,0.001660986,0.001647202,0.001585174,0.001395642,0.001240571,0.001130298,0.001250909,0.001271585,0.001268139,0.001299153,0.001140636,0.001006241,0.001033809,0.001026917,0.00095455,0.000933874,0.00095455,0.000964888,0.000978673,0.000951104,0.000823601,0.000806371,0.000975226,0.00066853,0.000823601,0.000861508,0.000806371,0.000961442,0.000957996,0.000923536,0.000806371,0.000751235,0.000689206,0.000627177,0.000771911,0.000561703,0.000513458,0.000740896,0.000740896,0.000596163,0.000644408,0.000547919,0.00072022,0.000575487,0.000603055,0.000589271,0.000578933,0.000620285,0.000606501,0.000558257,0.000465214,0.000351495,0.000275682,0.000220546,0.000192978,0.000196424,0.0002171,0.000237776,0.000258452,0.000272236,0.000282574,0.000289467,0.00028602,0.00028602,0.000279128,0.000265344,0.000241222,0.00018264,8.62E-05,0.000189532,0.000265344,0.000261898,0.000117165,0,0.000361833,4.48E-05,9.99E-05,0.000203316,0.000151625,6.55E-05,3.45E-06,6.2E-05,0.00028602\nSRI-1052969-001.txt,COc1ccc(cc1)C1(CCOCC1)C(=O)NCc1ccc(cc1)S(N)(=O)=O,0.839184866,0.874893423,0.908407128,0.940063651,0.965642121,0.984804869,0.996201217,1,0.994681704,0.982103513,0.959986156,0.932128416,0.896335441,0.853957909,0.805333491,0.752066116,0.694240201,0.633037591,0.570821972,0.507677762,0.447319326,0.391012924,0.339265062,0.291653652,0.249867043,0.21272339,0.180560363,0.152618205,0.129302121,0.109801704,0.094091627,0.081361484,0.071991153,0.064824116,0.059944791,0.056787581,0.054694029,0.053309584,0.052676453,0.052786196,0.053545953,0.055495994,0.057825914,0.059750631,0.062021459,0.064098127,0.06605661,0.068091069,0.069931369,0.071813877,0.072371031,0.072590517,0.07333339,0.074582767,0.076811386,0.078533501,0.077588026,0.074202889,0.069897602,0.06469749,0.060122068,0.057294085,0.055200534,0.053343351,0.050498485,0.045872412,0.039541107,0.031698731,0.024582345,0.018158181,0.013084696,0.009226821,0.006761833,0.004921534,0.003714365,0.00286175,0.002616939,0.002676031,0.002253944,0.001671464,0.001232494,0.001468863,0.001266261,0.001460421,0.000937033,0.001477304,0.001266261,0.000987684,0.000717548,0.000996125,0.00082729,0.000987684,0.000675339,0.000717548,0.000219485,0.00053183,0.000675339,0.000514946,0.000759757,0.000481179,0.000396762,0.000650014,0.000624689,0.000886383,0.000557155,0.000236369,0.000666897,0.000937033,0.000810407,0.000894824,0.000962358,0.000464296,0.000270136,0.000692223,0.000481179,0.000607805,0.000371437,0.000227927,0.000759757,0.000877941,0.000852616,0.000818849,0.001055217,0.000742873,0.001266261,0.001198727,0.000962358,0.001198727,0.000751315,0.000734431,0.001088984,0.000886383,0.00053183,0.00043897,0.000818849,0.000590922,0.001257819,0.00063313,0.000751315,0.001097426,0.000447412,0.000514946,0.000818849,0.000962358,0.000523388,0.000548713,0.000557155,0.000514946,0.00038832,0.00019416,6.75E-05,0,8.44E-06,1.69E-05,8.44E-06,5.07E-05,9.29E-05,0.000135068,0.000168835,0.000202602,0.000236369,0.00024481,0.00024481,0.000219485,0.000227927,0.000261694,0.000329228,0.000287019,0.000379878,0.000168835,0.000514946,0.000557155,0.000455854,0.000303903,0.000785082,0.000616247,0.000523388,0.000261694,0.000548713,0.000590922,0.000405203\nSRI-1052811-001.txt,OC1(CCN(CC1)C(=O)CNC(=O)Cn1nnc2ccccc2c1=O)c1ccc(Cl)cc1,0.99725237,0.999141366,1,0.992804643,0.980594862,0.957531941,0.924646243,0.884788432,0.838714109,0.788106196,0.739953977,0.695631268,0.6532319,0.610798187,0.565943124,0.518546504,0.469673032,0.421417777,0.376528369,0.336241242,0.302050419,0.273406375,0.250154554,0.231487842,0.216290012,0.203771122,0.193227092,0.18376494,0.175127078,0.167340981,0.160125017,0.154109424,0.14897479,0.144532216,0.140518959,0.136675711,0.13292863,0.1293258,0.125860352,0.122898063,0.120715414,0.119480698,0.119439483,0.120725718,0.123454458,0.12743337,0.132289806,0.137491414,0.142990109,0.148696593,0.154459747,0.160497665,0.166729633,0.173011403,0.179253675,0.185502816,0.191295164,0.196407474,0.20083631,0.204969776,0.208759788,0.212044924,0.214550419,0.21619728,0.217193296,0.217531598,0.2170147,0.215991208,0.214514356,0.212283624,0.209730045,0.206470669,0.202787127,0.198526583,0.194403421,0.190300866,0.186615607,0.18319309,0.180302926,0.17789875,0.175719536,0.173121308,0.169784654,0.165491482,0.160078651,0.153836379,0.147080643,0.140424509,0.134129001,0.128628589,0.124304506,0.12147273,0.12000103,0.11933473,0.118321541,0.116023836,0.111687732,0.104789463,0.095725718,0.085301896,0.074196318,0.063236708,0.053056739,0.043979255,0.036186289,0.029626322,0.024246119,0.019851628,0.016274557,0.013334593,0.011083253,0.009141022,0.007664171,0.006326418,0.005280602,0.004360146,0.003721322,0.00309967,0.002558731,0.002069309,0.001758483,0.001621102,0.001217544,0.001081879,0.000958236,0.000831158,0.000650845,0.000518615,0.000489422,0.000338302,0.000413862,0.000315977,0.000278198,0.000285067,0.000298805,0.000236983,0.000247287,0.000221528,0.000192334,0.000204355,0.000104753,0.000194051,0.000120209,0.00011334,0.000157989,0.000183748,0.000185465,0.000185465,0.000168292,0.000137382,9.96E-05,6.7E-05,5.32E-05,4.64E-05,4.46E-05,3.95E-05,3.95E-05,4.12E-05,4.46E-05,4.81E-05,4.98E-05,5.5E-05,6.01E-05,6.18E-05,5.32E-05,4.12E-05,0,4.46E-05,3.43E-05,8.24E-05,2.4E-05,3.43E-06,8.07E-05,4.46E-05,0.000101319,2.58E-05,1.89E-05,1.55E-05,0,8.59E-05,5.15E-05\nSRI-1052979-001.txt,Cc1cc(C)c(C)c(c1C)S(=O)(=O)NC(Cc1c[nH]c2ccccc12)C(O)=O,1,0.982253064,0.960522122,0.933358445,0.898226755,0.854402689,0.801161881,0.740677426,0.674398053,0.605945586,0.539666213,0.478095211,0.423224582,0.375887347,0.336192159,0.303088691,0.275200649,0.251876105,0.231593892,0.213376119,0.197222786,0.182083563,0.168030887,0.154557703,0.142352157,0.131124504,0.120983398,0.112472112,0.105300901,0.09957842,0.095123577,0.092041405,0.090212384,0.089277953,0.089393852,0.090230493,0.091994321,0.094265204,0.097072118,0.100378843,0.103656593,0.107713036,0.111834671,0.116079448,0.120719004,0.125344073,0.129951033,0.134880335,0.140016081,0.144927274,0.15022238,0.155282068,0.160341755,0.165075479,0.169541187,0.173604874,0.177150639,0.180395793,0.184137137,0.188349318,0.192304349,0.196128995,0.199421233,0.201518268,0.202470808,0.201380639,0.198624431,0.195187321,0.192134123,0.190837511,0.19043911,0.18863182,0.182916582,0.173115927,0.16013169,0.145934141,0.131870599,0.11872338,0.106597514,0.0950113,0.083595312,0.07242923,0.061781068,0.05175586,0.042625243,0.034519601,0.027696086,0.021966361,0.017308695,0.013520268,0.010630052,0.008337438,0.006421493,0.004831513,0.003802915,0.003176339,0.002477327,0.001948541,0.001752963,0.001535653,0.001278504,0.001169849,0.001303857,0.001267638,0.0011119,0.001162605,0.001184336,0.000934431,0.000771448,0.001061194,0.000840263,0.000764205,0.000919943,0.001046707,0.001068438,0.001133631,0.001249529,0.001437864,0.001307478,0.001600846,0.001676904,0.001416133,0.001267638,0.000930809,0.00085475,0.000789558,0.000662794,0.000554139,0.000517921,0.000543274,0.00073523,0.000644685,0.000445484,0.000507055,0.000445484,0.000601223,0.000727987,0.000673659,0.000622954,0.000756961,0.000738852,0.000825776,0.000833019,0.000941674,0.000959783,0.000927187,0.0009127,0.000919943,0.0009127,0.000916321,0.000919943,0.000930809,0.000945296,0.000959783,0.000959783,0.000959783,0.000963405,0.000963405,0.000959783,0.000948918,0.000938052,0.000927187,0.000909078,0.000901834,0.000890969,0.000840263,0.000785936,0.000767827,0.000662794,0.000767827,0.000727987,0.000521543,0.000680903,0.000586735,0.000622954,0.000347695,0.000315099,0.000362182,0.000220931,0.00031872,0\nSRI-1052801-001.txt,CCCc1cc(=O)oc2cc(C)cc(OCC(=O)N[C@@H](Cc3c[nH]c4ccccc34)C(O)=O)c12,1,0.993974099,0.979339768,0.951792792,0.911677508,0.857616567,0.79202033,0.718263301,0.64046031,0.563294343,0.492119843,0.429622641,0.375802736,0.331503755,0.29545165,0.266458457,0.243387865,0.225103559,0.210847999,0.200035811,0.19192667,0.186417275,0.183059987,0.18068406,0.178893507,0.177016869,0.174933629,0.172557702,0.170147342,0.168597824,0.168053772,0.169279612,0.171681364,0.174783842,0.177714152,0.179139708,0.17830469,0.175259028,0.171240613,0.167507997,0.165199216,0.165183721,0.167557926,0.171967164,0.177870825,0.185038204,0.193078478,0.201755775,0.21073609,0.219854139,0.229237328,0.238451791,0.247636986,0.256489895,0.264979529,0.272931997,0.2804506,0.287941656,0.295828699,0.304008429,0.312436082,0.320493573,0.327826234,0.333951993,0.338039275,0.340210321,0.340797416,0.341277766,0.343498741,0.34814385,0.353952819,0.357923027,0.35746678,0.352298279,0.344480102,0.336548295,0.329830276,0.324825335,0.321805498,0.320333456,0.320044213,0.320636473,0.322414975,0.324765076,0.32795536,0.331656985,0.335584151,0.339600844,0.343455699,0.34721414,0.350552489,0.353730721,0.356797044,0.359655043,0.362335708,0.364840761,0.367049684,0.368662904,0.369890466,0.370214143,0.36943422,0.367275225,0.363594261,0.358288024,0.351375455,0.343383388,0.33391928,0.32398343,0.313840978,0.303369684,0.292850182,0.282723225,0.272331128,0.262126695,0.251466016,0.240426565,0.228486672,0.215701432,0.201767827,0.186813262,0.170906605,0.154473112,0.137908771,0.121556198,0.105878525,0.090946342,0.077407003,0.065224353,0.05462221,0.04553343,0.037961455,0.031474142,0.025907931,0.021517632,0.017731644,0.014698033,0.012237744,0.010192381,0.008467252,0.007132945,0.006024179,0.005080695,0.004214687,0.003582829,0.003045663,0.002660005,0.002444794,0.002360432,0.00223647,0.001947227,0.001604611,0.00129643,0.001076054,0.000931432,0.000835018,0.000759264,0.000688674,0.00062325,0.000559548,0.000492402,0.000426978,0.000354667,0.000277191,0.000201437,0.0001429,0.000127405,0.000123961,7.58E-05,0.000180777,0.000136013,2.41E-05,0.000136013,0,7.23E-05,6.89E-05,2.93E-05,3.44E-06,1.72E-05,2.93E-05,5.17E-06,1.21E-05\nSRI-031114-1.txt,COC1=C(NC(=O)CC2N(C3=C(NC2=O)C=CC=C3)S(=O)(=O)C2=CC=C(OC3=CC=CC=C3)C=C2)C=CC=C1,0.970233782,0.922756721,0.881852599,0.847505486,0.82032418,0.799213729,0.78343141,0.77388553,0.770878518,0.771634176,0.776285935,0.785831385,0.799892825,0.817852834,0.84024995,0.864358302,0.888642544,0.913095688,0.936882291,0.957425692,0.974061477,0.98651078,0.995087744,0.999999977,0.999902879,0.992196171,0.976211546,0.953219422,0.924634745,0.891569512,0.85722666,0.823325943,0.790570704,0.759593497,0.730549699,0.701817173,0.672271199,0.640538395,0.60655453,0.572377998,0.539152623,0.508943589,0.482706311,0.459962445,0.440333247,0.424621023,0.412905207,0.404116112,0.397372523,0.392396756,0.387777903,0.38308324,0.378441948,0.373838957,0.369197545,0.36500884,0.361099081,0.358021574,0.355532372,0.351997042,0.347623232,0.34135811,0.333035696,0.323825189,0.314553028,0.304626231,0.295508585,0.287794349,0.280892078,0.274384708,0.267505395,0.258323757,0.24592644,0.230849557,0.214375812,0.198378154,0.183437323,0.170480359,0.160204881,0.151894882,0.145148829,0.139606971,0.13526647,0.13205982,0.129408945,0.127152549,0.125182141,0.123340178,0.121775369,0.120902434,0.120132358,0.119304716,0.118561515,0.117867577,0.116892784,0.11531858,0.11319601,0.111057065,0.109040936,0.106205006,0.102801443,0.099749063,0.096724697,0.093384318,0.092037072,0.091822796,0.088120992,0.082051343,0.079761015,0.078855578,0.078995373,0.075684096,0.068432724,0.063085548,0.057272322,0.05132447,0.046045608,0.041061387,0.035934181,0.031590462,0.028216672,0.025355349,0.022700052,0.020318712,0.017831054,0.015508871,0.013734906,0.012459132,0.011161607,0.009216587,0.007711104,0.007050623,0.00636032,0.005559555,0.00494633,0.004604301,0.00437562,0.004122213,0.003928188,0.003835088,0.00395912,0.004226408,0.004511027,0.005227526,0.005796016,0.005924487,0.006907465,0.009832765,0.010921731,0.009946315,0.008277133,0.007283374,0.007615184,0.006135558,0.005159731,0.006720699,0.008101377,0.00646355,0.008616523,0.013371561,0.013478103,0.008516652,0.009662741,0.010576484,0.00915016,0.007340152,0.005687937,0.010656867,0.019568776,0.017754543,0.003621072,1.22E-10,0.009148484,0.016198843,0.015184841,0.01042495,0.00288183,0.002748996,0.013472476,0.020518921,0.010717187\nSRI-0000223.txt,CC1(C)O[C@H]2O[C@H](C(O)CN)[C@H](OCC3=CC=CC=C3)[C@H]2O1,0.340243902,0.289430894,0.248780488,0.234552846,0.222357724,0.218292683,0.228455285,0.226422764,0.244715447,0.273170732,0.285365854,0.305691057,0.332113821,0.348373984,0.362601626,0.382926829,0.38495935,0.38699187,0.382926829,0.378861789,0.360569106,0.32195122,0.283333333,0.234552846,0.210162602,0.20203252,0.195934959,0.185772358,0.179674797,0.172560976,0.175,0.187398374,0.196341463,0.203455285,0.203861789,0.215447154,0.223170732,0.219308943,0.220528455,0.211178862,0.218089431,0.215243902,0.204471545,0.192479675,0.18699187,0.178252033,0.16300813,0.146138211,0.148170732,0.152439024,0.158943089,0.162398374,0.167073171,0.166463415,0.179878049,0.17601626,0.178658537,0.181707317,0.192682927,0.190447154,0.200813008,0.210162602,0.212601626,0.214430894,0.227235772,0.234146341,0.237195122,0.248373984,0.253252033,0.263821138,0.275813008,0.289227642,0.295121951,0.311382114,0.324796748,0.341463415,0.358739837,0.375,0.391869919,0.414634146,0.443292683,0.462804878,0.489227642,0.511382114,0.527439024,0.552235772,0.584349593,0.614634146,0.653252033,0.676422764,0.699796748,0.732520325,0.753252033,0.772357724,0.791260163,0.802235772,0.81199187,0.830894309,0.834146341,0.842682927,0.855284553,0.880691057,0.904471545,0.938414634,0.97703252,1,0.997357724,0.986178862,0.958536585,0.937195122,0.906504065,0.875203252,0.835162602,0.818292683,0.802642276,0.76504065,0.744105691,0.746544715,0.744918699,0.763211382,0.784349593,0.800203252,0.805081301,0.777642276,0.719105691,0.631097561,0.555691057,0.545731707,0.557113821,0.553658537,0.559552846,0.55203252,0.541260163,0.543292683,0.527235772,0.527642276,0.524390244,0.509146341,0.48597561,0.481504065,0.468089431,0.444105691,0.429878049,0.417276423,0.396138211,0.379065041,0.366463415,0.357926829,0.344105691,0.316869919,0.287398374,0.260772358,0.240650407,0.225609756,0.213821138,0.203658537,0.192682927,0.180691057,0.167073171,0.151829268,0.135162602,0.117073171,0.095731707,0.072154472,0.04695122,0.023170732,0.007926829,0,0.008943089,0.008130081,0.011585366,0.015243902,0.014837398,0.016056911,0.010162602,0.006504065,0.010569106,0.013414634,0.009349593,0.019105691,0.012195122\nSRI-1053108-001.txt,CC(C)(C)c1ccc(cc1)S(=O)(=O)NC(CC(O)=O)c1ccccc1,0.881882069,0.890379762,0.902276532,0.91672261,0.933717996,0.95241292,0.970258075,0.984704153,0.995751154,1,0.996600923,0.986403691,0.966858998,0.938646657,0.902446486,0.858683367,0.808546979,0.75237723,0.693063333,0.629075706,0.563813425,0.499400913,0.436263055,0.375589527,0.320354524,0.270558043,0.227304787,0.190594754,0.160088036,0.135274773,0.115305195,0.100434232,0.089557185,0.081365409,0.075646462,0.071644049,0.069009764,0.066868345,0.065287774,0.06353725,0.062373066,0.061752734,0.061438319,0.061429822,0.060996439,0.059118449,0.056526653,0.053416497,0.050527282,0.047442619,0.043508188,0.039505774,0.035596835,0.032724615,0.031144044,0.029444506,0.025518572,0.020734371,0.016120123,0.011607848,0.008268255,0.0062628,0.004656736,0.003195133,0.002472829,0.002362359,0.002158414,0.001776018,0.001521087,0.001419115,0.001555078,0.001572073,0.001351133,0.000739299,0.000824276,0.001257659,0.00143611,0.001121695,0.00121517,0.000977235,0.00099423,0.001181179,0.001036719,0.000934746,0.000739299,0.000475871,0.001036719,0.000832774,0.000951742,0.000671318,0.000637327,0.000858267,0.000603336,0.000535355,0.000348405,0.00022094,0.000628829,0.000356903,0.000603336,0.000824276,0.000543852,0.000416387,0.000645825,0.000815779,0.000492866,0.000203945,0.000688313,0.000492866,0.000186949,0.000416387,0.000781788,0.000722304,0.000424885,0.000526857,0.000798783,0.000118968,0.000713806,0.00033141,0.000688313,0.000407889,0.000594839,0.000764792,0.000696811,0.000399392,0.000297419,0.000526857,0.000399392,0.000246433,0.000339908,0.000815779,0.000543852,0.000314415,0.000467373,0.000433382,0.000484368,0.000475871,0.000637327,0.000101972,0.000271926,0.000186949,0.000348405,0.000314415,0.000560848,0.000628829,0.000169954,0.000237935,0.000339908,0.000390894,0.000416387,0.000356903,0.000280424,0.000212442,0.00022094,0.000169954,0.000127465,9.35E-05,8.5E-05,6.8E-05,7.65E-05,7.65E-05,7.65E-05,7.65E-05,8.5E-05,0.00011047,0.000161456,0.000169954,0.00022094,0.000637327,0.000322912,0.000305917,0,0.000195447,0.000178452,7.65E-05,0.000399392,0.00088376,0.000433382,0.000237935,0.000169954,0.000382396,0.000254931\nSRI-1053060-001.txt,COc1ccc(cc1)S(=O)(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(O)=O,0.991642371,1,0.999352122,0.987366375,0.962973761,0.926822157,0.87994817,0.825526401,0.76851312,0.712439261,0.661613217,0.618820862,0.584742468,0.559701976,0.542274052,0.53148688,0.525882734,0.523809524,0.523485585,0.523712342,0.523647554,0.522772919,0.519436346,0.51350826,0.505280207,0.4936184,0.479138322,0.461548429,0.44090379,0.418202138,0.393449951,0.367641723,0.341668286,0.316433431,0.293187561,0.272575316,0.254609653,0.239967606,0.227955944,0.218623259,0.211875607,0.207061872,0.204250081,0.202510528,0.20181082,0.20154519,0.201243926,0.201626174,0.202387431,0.203449951,0.204612893,0.205587949,0.206086816,0.205730483,0.204110787,0.201622935,0.198380305,0.195387107,0.193479106,0.192844185,0.192734046,0.192426304,0.190641399,0.186951733,0.181302235,0.173644315,0.164985423,0.156899903,0.150839002,0.147729187,0.146226109,0.143122773,0.136245546,0.124703596,0.109776482,0.094599935,0.080032394,0.067249757,0.056355685,0.046993845,0.039092971,0.032335601,0.026663427,0.021995465,0.018069323,0.014888241,0.012267574,0.01015873,0.008396501,0.007113703,0.006083576,0.005280207,0.004586978,0.003981212,0.003605442,0.003359248,0.003142209,0.003009394,0.002860382,0.002656301,0.002442501,0.002429543,0.002380952,0.002248137,0.002154195,0.001979268,0.002060253,0.002001944,0.001778426,0.001771947,0.001771947,0.001690962,0.001600259,0.001448008,0.001354065,0.001195335,0.001059281,0.001039845,0.000965339,0.001130547,0.000864917,0.00090379,0.000942663,0.000871396,0.000596048,0.000528021,0.000518303,0.0005345,0.000437318,0.000398445,0.000447036,0.000437318,0.000515063,0.000304503,0.000301263,0.000366051,0.00031746,0.000191124,0.000200842,0.000288306,0.000220279,0.000268869,0.0003207,0.0002138,0.00016197,0.000152251,0.000165209,0.000155491,0.000145773,0.000119857,9.39E-05,8.75E-05,7.77E-05,6.8E-05,5.83E-05,5.83E-05,5.83E-05,6.15E-05,5.51E-05,6.15E-05,7.13E-05,8.42E-05,0.000100421,0.000110139,9.72E-05,6.15E-05,5.51E-05,0.000197603,3.24E-06,4.54E-05,1.62E-05,4.54E-05,9.07E-05,3.56E-05,0.000171688,0,5.18E-05,0.000103661,2.59E-05,9.39E-05,0.000149012\nSRI-0000551.txt,CN1C=NN=C1\\C=C\\C1=CC=C(O1)[N+]([O-])=O,0.017004818,0.014037136,0.012355449,0.012256526,0.01383929,0.016411281,0.020170345,0.025907863,0.032634609,0.041240887,0.050539624,0.061520047,0.073291852,0.08555827,0.098616071,0.112959867,0.126611204,0.140955,0.155595564,0.16993936,0.183887466,0.197736648,0.211170355,0.224168802,0.236534143,0.24879067,0.260275599,0.271226345,0.281613232,0.291317552,0.300250275,0.308638922,0.316166942,0.322953041,0.329204958,0.335229352,0.340472257,0.346437298,0.351225158,0.357101168,0.36289804,0.368932327,0.375490904,0.382148404,0.389142241,0.395760172,0.402566056,0.408986141,0.414792905,0.419877534,0.424754424,0.428444242,0.431382247,0.433063934,0.433528871,0.432460505,0.429463146,0.425357853,0.419175182,0.412013177,0.403268407,0.393395918,0.382019804,0.369426941,0.355795388,0.341253747,0.324931496,0.308965367,0.291495613,0.273501568,0.25627912,0.238354321,0.220844998,0.203859965,0.187488253,0.171799108,0.155961578,0.141766166,0.128362136,0.115492289,0.102622442,0.090682468,0.079355815,0.068790867,0.059037086,0.049768026,0.041379379,0.033801897,0.026263985,0.020021961,0.014739487,0.009912058,0.006024394,0.002779729,0.000840843,0,0.000267091,0.00078149,0.002947897,0.005480319,0.009753781,0.014650457,0.020358298,0.027856641,0.036314535,0.045751763,0.05635628,0.068068732,0.080345042,0.09430304,0.108656728,0.124484365,0.141350691,0.158543462,0.176636429,0.195857116,0.216136276,0.236524251,0.257456301,0.279753485,0.302762912,0.325703093,0.349385195,0.373858679,0.39832227,0.423547567,0.448703618,0.474888465,0.500321499,0.524508107,0.548615576,0.571882203,0.595930319,0.620512618,0.644659656,0.668331866,0.691707307,0.715072857,0.737182087,0.759785931,0.781924839,0.802233675,0.822384236,0.841753306,0.861636776,0.877978811,0.890086953,0.897268743,0.905459546,0.920288063,0.938005124,0.954485651,0.966999377,0.974250413,0.97897892,0.981827894,0.9846373,0.988396364,0.991067277,0.993619484,0.995073648,0.997517039,0.999851616,1,0.997853377,0.991621245,0.983064428,0.974032783,0.962073025,0.949401023,0.935640871,0.919892372,0.90243251,0.884626418,0.864871549,0.844938618,0.823432817,0.800106837,0.775267339,0.750388272,0.724767284\nSRI-1053316-001.txt,OC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)c1ccco1,1,0.994624419,0.977415092,0.949529263,0.909585707,0.856576501,0.792368168,0.721552348,0.647862086,0.576672963,0.512053995,0.456767633,0.412232434,0.378373737,0.353549004,0.336974294,0.327044401,0.321444837,0.319876959,0.321519498,0.325289871,0.330628122,0.337720903,0.345560292,0.354332943,0.363852201,0.373632773,0.383488006,0.392913938,0.402044961,0.411022928,0.418996707,0.426406797,0.432700707,0.437564862,0.44104779,0.443485467,0.444538185,0.444299271,0.442462614,0.438811698,0.433611569,0.426832364,0.418044782,0.408338871,0.397471984,0.385436654,0.372229149,0.358711802,0.344571036,0.33022122,0.315595159,0.301084822,0.286365435,0.271866297,0.257658337,0.243648228,0.231138802,0.220335377,0.211185689,0.203607612,0.196988928,0.19084434,0.184109931,0.176871561,0.168375156,0.158982821,0.150646936,0.144827123,0.141851888,0.139824846,0.135912617,0.127617796,0.114716401,0.099552781,0.084370497,0.07080462,0.05895221,0.049306027,0.040917881,0.033832566,0.027967956,0.022976878,0.018799603,0.015290543,0.012535557,0.01014641,0.008242558,0.006712011,0.005558501,0.004714833,0.003822636,0.003180552,0.002725121,0.002351817,0.002027042,0.001847856,0.001552946,0.001265501,0.001280434,0.001063917,0.000985523,0.000955659,0.000899663,0.000839935,0.000791405,0.000630884,0.000451698,0.000589821,0.000541291,0.000593554,0.000362105,0.000481563,0.000489029,0.000339707,0.000279978,0.000377037,0.000447965,0.000425567,0.000492762,0.000391969,0.000272512,0.000201584,0.000186652,0.00017172,0.000317309,0.000339707,0.000436766,0.000231449,0.000175453,0.000253847,0.000246381,0.000354639,0.000138123,0.000223983,0.000246381,0.000242648,9.33E-05,0.000242648,0.000153055,0.000153055,0,0.000179186,0.000175453,7.47E-05,8.59E-05,0.000108258,0.000126923,0.000156788,0.000156788,0.000145589,0.00013439,0.00012319,0.000104525,8.21E-05,7.47E-05,6.35E-05,4.85E-05,4.11E-05,4.11E-05,4.11E-05,4.11E-05,3.36E-05,3.36E-05,4.11E-05,5.97E-05,2.99E-05,3.73E-05,0.000235182,0.000104525,4.11E-05,0.000212783,0.000100792,3.36E-05,1.87E-05,8.21E-05,0.000164254,0.000100792,3.73E-06,2.24E-05,6.35E-05\nSRI-1052764-001.txt,CCOC(=O)c1c(NC(=O)CCN2C(=O)c3ccccc3C2=O)scc1-c1ccc(Cl)cc1,1,0.975736008,0.943384018,0.911032028,0.870592041,0.838240052,0.797800065,0.74927208,0.716920091,0.676480104,0.627952119,0.579424135,0.538984148,0.506632158,0.466192171,0.417664186,0.377224199,0.336784212,0.304432223,0.28259463,0.252669039,0.230022646,0.204141055,0.181494662,0.162083468,0.145098674,0.128922679,0.113555484,0.100614688,0.09252669,0.082821093,0.074733096,0.065027499,0.058557101,0.054513103,0.053704303,0.047233905,0.043836946,0.041410547,0.039954707,0.038175348,0.039631187,0.034859269,0.035101909,0.039145907,0.037932708,0.038741508,0.040520867,0.039388547,0.037123908,0.038175348,0.040116467,0.038579748,0.040844387,0.041167907,0.040520867,0.041410547,0.042704626,0.043594306,0.041976707,0.041895827,0.041814947,0.042866386,0.043675186,0.041248787,0.041410547,0.040439987,0.036962148,0.035021029,0.036719508,0.034131349,0.03243287,0.03178583,0.027822711,0.027499191,0.028874151,0.028631511,0.023697832,0.027337431,0.027256551,0.024263992,0.022808153,0.024830152,0.022161113,0.023940472,0.021756713,0.019896474,0.017955354,0.019977354,0.018440634,0.021190553,0.019896474,0.019006794,0.018764154,0.016175995,0.014881915,0.017065675,0.017308314,0.016337755,0.013264316,0.016337755,0.018278874,0.014558395,0.011484956,0.008977677,0.011404076,0.012212876,0.014315755,0.012617276,0.009705597,0.012698156,0.010433517,0.008815917,0.007764478,0.008007117,0.005661598,0.008330637,0.013021676,0.008977677,0.009301197,0.011484956,0.007926237,0.005257198,0.005580718,0.010918797,0.010109997,0.008492397,0.009705597,0.006793918,0.008330637,0.007683598,0.008168877,0.006470398,0.007926237,0.009301197,0.009058557,0.007440958,0.005580718,0.007926237,0.005904238,0.008573277,0.006146878,0.006308638,0.003720479,0.004691038,0.006227758,0.006470398,0.006308638,0.005580718,0.004529279,0.003558719,0.002830799,0.002021999,0.00153672,0.00129408,0.00137496,0.00145584,0.00153672,0.001698479,0.001860239,0.002102879,0.002426399,0.002911679,0.003396959,0.003235199,0.002749919,0.002830799,0.003235199,0.005661598,0.005661598,0.007683598,0,0.003558719,0.005257198,0.007926237,0.007683598,0.009139437,0.007764478,0.006551278,0.003073439,0.008411517\nSRI-1053306-001.txt,COc1ccc(cc1)S(=O)(=O)N[C@@H](CC(C)C)C(O)=O,0.207788847,0.228619485,0.251649631,0.277655583,0.308189934,0.342993919,0.381808772,0.422952516,0.466942683,0.51546125,0.563462285,0.614697891,0.665674732,0.716004658,0.766334584,0.814076853,0.857937637,0.898822616,0.933755984,0.961832061,0.983309613,0.995989132,1,0.993530858,0.977487385,0.951740199,0.916677449,0.872299133,0.820313106,0.760460603,0.69434597,0.624621555,0.55513003,0.487385173,0.424427481,0.368611722,0.319265105,0.276879286,0.242489326,0.214827274,0.192366412,0.174822099,0.16086169,0.149708889,0.139759348,0.130042696,0.121516367,0.114516755,0.108254625,0.103790917,0.100129383,0.09615733,0.091370164,0.085431492,0.077707336,0.069957304,0.062750679,0.055945142,0.050731013,0.04758701,0.046293182,0.043809031,0.039526459,0.033341959,0.026174149,0.020028464,0.014387372,0.010531763,0.008345193,0.006080994,0.004929486,0.003389831,0.003001682,0.002471212,0.002781731,0.001953681,0.001992496,0.0016561,0.001513779,0.001500841,0.001462026,0.001151507,0.00120326,0.001086816,0.001060939,0.000892742,0.000543408,0.000879803,0.001048001,0.000853927,0.000866865,0.000711606,0.000621038,0.00037521,0.000595161,0.000944495,0.001035063,0.000763359,0.000608099,0.000478717,0.000724544,0.000957433,0.000957433,0.000556346,0.000776297,0.000271704,0.000517531,0.001242075,0.000582223,0.000931556,0.00128089,0.00075042,0.000621038,0.000737482,0.000879803,0.000491655,0.000892742,0.000931556,0.000724544,0.00037521,0.000776297,0.000401087,0.000426963,0.000414025,0.000698667,0.001578471,0.001035063,0.001073878,0.000970371,0.000840988,0.00082805,0.000866865,0.00090568,0.000698667,0.000504593,0.000621038,0.001177384,0.000155259,0.000478717,0.000478717,0.00090568,0.001086816,0.001099754,0.001125631,0.000323457,0.00045284,0.000595161,0.000711606,0.000776297,0.000776297,0.000698667,0.000621038,0.00053047,0.00045284,0.000362272,0.000323457,0.000245827,0.000207013,0.000168198,0.000142321,0.000116445,7.76E-05,3.88E-05,0,0,0.000258766,0.000556346,0.001099754,0.000789235,0.000944495,0.000582223,0.000349334,0.000129383,0.000944495,0.000595161,0.000543408,0.00053047,0.000349334,0.000349334,0.000116445,0.000659853\nSRI-0000586.txt,CC(=O)NC1=CC=C(C(NC(C)=O)=N1)[N+]([O-])=O,0.670988355,0.663242763,0.656113297,0.650128066,0.643702745,0.636749316,0.629883904,0.622842456,0.615889027,0.60928767,0.603214421,0.598197389,0.594764684,0.592212159,0.592036123,0.594852702,0.598901534,0.605942982,0.615536954,0.628123542,0.643790763,0.661394383,0.681726563,0.704875322,0.730215732,0.756577152,0.784056402,0.811377219,0.839437388,0.866379728,0.893128427,0.917060548,0.93969,0.958666702,0.975469356,0.988205575,0.995951168,1,0.999964793,0.993477859,0.983549418,0.968040629,0.947259557,0.920581272,0.888982775,0.852543283,0.812794311,0.768706046,0.72217968,0.674940368,0.629012525,0.584977071,0.543899026,0.506684974,0.474118279,0.446542209,0.42300617,0.403316522,0.386821931,0.373425576,0.361904007,0.351931557,0.343358595,0.335560191,0.327805797,0.320764349,0.314066172,0.306672652,0.299948069,0.29251054,0.284747344,0.277705896,0.270822881,0.26337655,0.257012842,0.250710746,0.24528003,0.240201385,0.235518823,0.232068513,0.22889106,0.225396742,0.222976244,0.220326899,0.218777781,0.217395897,0.216577328,0.216234058,0.215873184,0.216119634,0.217008617,0.218716168,0.220872611,0.223583569,0.226584986,0.230387368,0.234603434,0.239197979,0.244347038,0.249601718,0.254935615,0.261202503,0.266835661,0.272732874,0.27893815,0.285134624,0.291216674,0.298099689,0.303803262,0.309401213,0.31571211,0.321310061,0.326855201,0.332532369,0.337927878,0.342610441,0.347099364,0.351825935,0.356191633,0.360231664,0.364148469,0.367713202,0.369966465,0.372369359,0.374631424,0.37631257,0.377668049,0.378724266,0.379305185,0.379349194,0.379569239,0.3788915,0.377905697,0.376673444,0.374587415,0.372756639,0.369764023,0.36634012,0.362643359,0.358568122,0.354325649,0.349158987,0.343596243,0.338112716,0.331889837,0.325508525,0.320966791,0.318211824,0.313450045,0.302896676,0.290266079,0.278498059,0.268895285,0.261466558,0.255454922,0.249883376,0.244082983,0.237657662,0.230264142,0.221964036,0.212326054,0.201464621,0.18856997,0.173360443,0.156865852,0.141823559,0.129439413,0.118859638,0.10856152,0.098527457,0.088396574,0.078564953,0.068926971,0.059130557,0.050082297,0.041183667,0.032681119,0.024152166,0.015755239,0.007455133,0\nSRI-1052924-001.txt,Cc1c(CC(=O)N[C@H](Cc2c[nH]c3ccccc23)C(O)=O)c(=O)oc2cc(O)ccc12,1,0.99116889,0.973948226,0.944526687,0.903508507,0.850707767,0.787379415,0.716893216,0.642990771,0.568995368,0.499229602,0.436784361,0.382589235,0.336690704,0.298461295,0.267296774,0.24231403,0.221979238,0.205293088,0.191488669,0.180194145,0.170689082,0.162438967,0.155164921,0.148518349,0.142243613,0.136782269,0.132004174,0.127867496,0.124755692,0.122612986,0.121499801,0.12144635,0.121897201,0.122640874,0.123486801,0.123949272,0.124493083,0.125081049,0.126205853,0.128157993,0.131109443,0.13514619,0.14024267,0.146122329,0.152585307,0.159489841,0.16663142,0.173986804,0.181535079,0.188820745,0.196045987,0.203199186,0.209948013,0.216485358,0.222358046,0.228002984,0.233508484,0.239295184,0.245225972,0.251082392,0.256713386,0.261205632,0.2647404,0.266441551,0.266281196,0.264631173,0.263471509,0.263357634,0.265379494,0.268279816,0.269602159,0.266904022,0.26064323,0.252293184,0.243371439,0.235693021,0.229850545,0.225981125,0.223905814,0.22367574,0.22508407,0.227789178,0.232046703,0.237540582,0.244101167,0.251816768,0.259978573,0.268828274,0.277822062,0.287392197,0.296973951,0.306397674,0.315554141,0.324280671,0.332481983,0.34000237,0.34713233,0.35336291,0.359179822,0.364394825,0.369242639,0.373267766,0.376523657,0.37935426,0.381427247,0.382356837,0.382507896,0.381385415,0.379073059,0.375587094,0.370729984,0.364892156,0.358338543,0.350448644,0.342112541,0.333021146,0.323739185,0.314041232,0.304134121,0.293890034,0.283485593,0.272439733,0.260722245,0.248479539,0.235474568,0.221728248,0.20763798,0.193180524,0.179067017,0.165250978,0.151139794,0.136831072,0.122696649,0.10930125,0.096424098,0.084604355,0.073460889,0.063430607,0.054432171,0.046209943,0.03913576,0.033000462,0.027671585,0.023025956,0.019565556,0.017490245,0.016432836,0.015161621,0.012867856,0.010237115,0.007889899,0.006339807,0.00543578,0.004889646,0.004485274,0.004106466,0.003732306,0.003355822,0.002967718,0.00256567,0.002100875,0.001608192,0.001148044,0.00078318,0.000560078,0.000429936,0.000418316,0.000264933,0.000237046,0.000327681,0.000220778,0.000139439,6.74E-05,0.00015803,5.35E-05,5.81E-05,2.09E-05,5.81E-05,5.58E-05,0\nSRI-1052780-001.txt,Cc1c(OCC(=O)N[C@@H](Cc2c[nH]c3ccccc23)C(O)=O)ccc2c3CCCCc3c(=O)oc12,1,0.988939622,0.966097538,0.931473747,0.885549136,0.828564147,0.76292321,0.691752084,0.618897857,0.546885181,0.479272612,0.419089731,0.366673159,0.322648047,0.286581598,0.257271597,0.23368414,0.214809365,0.199396969,0.186244737,0.174895828,0.164773178,0.15527568,0.146595688,0.138829379,0.131928665,0.126422521,0.122070503,0.118944744,0.116819228,0.115429467,0.114486931,0.113801668,0.113828117,0.1143619,0.115540071,0.117704058,0.120834626,0.125131342,0.130392235,0.136547575,0.143260744,0.150630321,0.158603411,0.166720766,0.174989601,0.183412319,0.191854272,0.200252946,0.208528994,0.216478039,0.224352547,0.232147709,0.239445154,0.246408383,0.252532466,0.258062655,0.263316334,0.267988141,0.272236769,0.276360366,0.279524596,0.282381059,0.284775871,0.28606705,0.286177654,0.285444303,0.284367118,0.284571495,0.285768901,0.286971116,0.286016557,0.281142777,0.272717655,0.262659925,0.253532709,0.24637953,0.242191013,0.240613707,0.241563457,0.244330955,0.249231184,0.255093184,0.26234254,0.269873214,0.277781384,0.285845842,0.293376517,0.300592211,0.307165922,0.313511213,0.319075064,0.32421814,0.329031808,0.333140979,0.336519203,0.339315555,0.340989038,0.341219863,0.340000818,0.33716359,0.332616813,0.326564863,0.318822599,0.310226762,0.300582593,0.290575356,0.280306036,0.269803486,0.259298532,0.248759915,0.237908723,0.226903647,0.215292655,0.203056511,0.190043737,0.176381766,0.161950377,0.147115045,0.131938283,0.116812014,0.102431119,0.088403675,0.075472651,0.063626025,0.053181181,0.044020303,0.036162626,0.029430222,0.023969762,0.019492713,0.015789891,0.012781949,0.010351071,0.008439549,0.006787706,0.005566255,0.004611697,0.00388075,0.003176252,0.002673726,0.002204862,0.001885073,0.001625395,0.001464298,0.001344076,0.001281561,0.00128637,0.001250304,0.001108442,0.000935323,0.000783844,0.000675645,0.000610725,0.00056985,0.000540997,0.000516952,0.000495313,0.000473673,0.000452033,0.000425584,0.000396731,0.000360664,0.000329407,0.000307767,0.000298149,0.00025487,0.000271701,0.000221208,0.000165906,0.000185141,0.00021159,0.00018995,0.000252465,9.86E-05,0.000108199,4.81E-05,4.33E-05,0,7.45E-05,0.00010339\nSRI-1053094-001.txt,O=C(Nc1ncccn1)[C@H]1CC[C@H](Cn2nnc3ccccc3c2=O)CC1,0.861101761,0.878200381,0.896690228,0.916346909,0.935599686,0.954358802,0.97123303,0.98496578,0.994883877,0.999820487,1,0.995467295,0.987523842,0.972938405,0.95207001,0.92280938,0.885829687,0.842836307,0.795310221,0.746168518,0.698418041,0.652462695,0.609020532,0.568315943,0.530169415,0.494132166,0.460293953,0.427487939,0.396328958,0.366260518,0.338301358,0.312568159,0.289962975,0.270360148,0.253804555,0.239865365,0.228044429,0.217704477,0.208683945,0.200812297,0.194076069,0.188681701,0.184763828,0.182237182,0.181344104,0.18186918,0.183516212,0.18579154,0.188928531,0.192563671,0.196580276,0.200718052,0.204932122,0.208683945,0.21249411,0.215904858,0.219127118,0.222124986,0.225149781,0.227600135,0.229947268,0.231908448,0.233568944,0.234533827,0.234910804,0.234856951,0.234313923,0.233160552,0.231432739,0.229507461,0.227084035,0.22399641,0.220500393,0.21658252,0.212404353,0.208149893,0.203949288,0.199991024,0.196432178,0.193209918,0.190615954,0.188035454,0.185508807,0.182578256,0.178736677,0.173822506,0.168329406,0.16192079,0.154722316,0.147824526,0.141402446,0.136165152,0.131731179,0.1289218,0.127068327,0.12611242,0.124932122,0.122279816,0.11745989,0.110517222,0.100828004,0.089814877,0.078200381,0.066343543,0.055801638,0.046054078,0.037518232,0.030669808,0.024705486,0.019925951,0.016178616,0.013396163,0.01102659,0.009069898,0.007611354,0.006094469,0.005228318,0.004371143,0.00373836,0.002997868,0.0025805,0.002077864,0.001642545,0.001386738,0.001431617,0.001247616,0.001193762,0.000906541,0.000902053,0.000771906,0.000718052,0.000592393,0.000511612,0.000399417,0.000345563,0.000399417,0.000439807,0.000278245,0.000161562,0.000152586,0.00030966,0.00035005,0.000282733,0.000251318,0.000242343,0.000157074,0.000107708,5.39E-05,5.83E-05,5.39E-05,3.59E-05,1.35E-05,0,0,1.35E-05,1.35E-05,1.35E-05,1.8E-05,2.24E-05,2.24E-05,1.8E-05,2.24E-05,2.69E-05,3.14E-05,3.14E-05,1.35E-05,0.000139123,0.000336587,0.000336587,0.000148098,4.49E-06,0.000197464,0.000107708,0.00026927,0.000112196,0.000242343,0.000260294,0.000148098,0.00010322,0.000157074,0.000130147\nSRI-0000550.txt,[O-][N+](=O)N1CCN(C1=O)C1=CC=CC=N1,0.698754275,0.705610719,0.709410676,0.709741107,0.706436797,0.699002098,0.688758736,0.674054554,0.65687214,0.636137591,0.612594379,0.587729443,0.562616683,0.536430023,0.51032597,0.48488278,0.461174352,0.439696334,0.420944372,0.404918466,0.39186644,0.382118724,0.375344887,0.371049284,0.369314521,0.369810167,0.372197532,0.375757926,0.38068961,0.387207362,0.394220761,0.40144894,0.409693195,0.418292663,0.426834305,0.435764204,0.445264097,0.455069638,0.465114742,0.476027228,0.487220579,0.499281312,0.511928561,0.525501016,0.540023461,0.556635882,0.574784807,0.595106316,0.617294761,0.641399706,0.666785071,0.693649115,0.721430106,0.749756307,0.778123813,0.806144365,0.83439622,0.861714607,0.888842996,0.914211839,0.93731723,0.958026996,0.975432452,0.988657954,0.996464388,1,0.997637418,0.991648355,0.978530243,0.961620434,0.939250252,0.912080559,0.880078312,0.845126968,0.806392189,0.766335685,0.723809209,0.681067953,0.638855387,0.596609777,0.556098931,0.517512846,0.481024997,0.446660168,0.414096188,0.38356436,0.354965553,0.328415418,0.303550482,0.280312918,0.258760553,0.238265567,0.219513605,0.201521635,0.184595305,0.169073306,0.154220431,0.140755365,0.128298115,0.11674955,0.106241842,0.096651081,0.087390751,0.079229104,0.07172832,0.065615345,0.059097593,0.053158095,0.048193368,0.04374081,0.039337816,0.035306557,0.032258331,0.029226626,0.026376658,0.023534951,0.021486279,0.019462389,0.01776893,0.016116774,0.014828093,0.013498108,0.012258992,0.011259438,0.01032597,0.009243809,0.008781205,0.008310341,0.007591653,0.006963834,0.006848183,0.006509492,0.005898194,0.005237332,0.005286897,0.004634295,0.004493862,0.004551688,0.004336907,0.004188214,0.003568655,0.003345614,0.003643002,0.003221703,0.003006923,0.00298214,0.00298214,0.003006923,0.002891272,0.002626927,0.002304757,0.002032151,0.001817371,0.001668677,0.001569547,0.001478679,0.001396071,0.001313463,0.001214334,0.001090422,0.00095825,0.000801295,0.000611297,0.000379996,0.000256084,0.000280866,0.00010739,0.00010739,0,0.000132172,0.000239563,0.000239563,0.000487386,0.000330431,0.000181737,0.000404778,0.000198259,0.000264345,0.000189998,0.000297388,0.000173476\nSRI-1053084-001.txt,Cc1cc(NC(=O)[C@H]2CC[C@H](Cn3nnc4ccccc4c3=O)CC2)no1,0.995473016,0.99676644,1,1,0.998922147,0.994071807,0.986311262,0.971975813,0.952466667,0.927783826,0.897927288,0.86462162,0.82765125,0.786908393,0.740345129,0.688392597,0.632020867,0.574140142,0.515720491,0.461827824,0.413539994,0.371072572,0.334856699,0.304784591,0.280209535,0.260053677,0.243778092,0.229765998,0.217941947,0.207529883,0.198540587,0.190639922,0.184043459,0.178492514,0.173394268,0.168296022,0.164167843,0.158961812,0.153604881,0.147881479,0.142384427,0.137480194,0.134106513,0.132446619,0.131616672,0.1318538,0.132672969,0.136219106,0.141220346,0.146825183,0.152958169,0.159015704,0.165698395,0.171529582,0.177835024,0.184011123,0.190295008,0.196632786,0.202075946,0.207562219,0.213167056,0.217877276,0.222296474,0.225519256,0.228407903,0.230768402,0.232169611,0.232805544,0.23291333,0.232794766,0.231350442,0.229054615,0.226284532,0.221703655,0.218340753,0.214201796,0.208596958,0.203854404,0.199790896,0.196093859,0.192030352,0.188969249,0.18543389,0.183288962,0.179311683,0.174666135,0.168436143,0.162270821,0.15618095,0.149509038,0.143634737,0.139150867,0.135852636,0.133599922,0.132123263,0.131314873,0.130226241,0.127402266,0.121549522,0.112872803,0.102934995,0.09164987,0.08004139,0.0689395,0.057945396,0.048481844,0.041184776,0.034448193,0.029058926,0.025070869,0.020748677,0.017428889,0.014820484,0.012686334,0.011576145,0.009905472,0.008859955,0.007771323,0.006919818,0.005820408,0.005604837,0.005109025,0.003804822,0.003352124,0.003168889,0.002694633,0.003298231,0.002209599,0.002209599,0.002112593,0.001304203,0.001261088,0.001358095,0.001077853,0.001067075,0.001077853,0.001142525,0.000754497,0.000743719,0.000851504,0.001164082,0.000474255,0.000646712,0.00051737,0.000743719,0.000560484,0.000625155,0.000592819,0.000635933,0.000495813,0.00044192,0.00036647,0.000323356,0.000269463,0.000226349,0.000194014,0.000183235,0.000172457,0.000194014,0.000237128,0.000269463,0.000301799,0.000377249,0.000431141,0.000485034,0.000398806,0.000398806,0.000528148,0.000452698,0.000258685,0.000247906,0.000474255,0.000258685,0.000398806,0.000334135,0.000635933,0.00036647,0.000388027,0,0.000485034,0.000538927\nSRI-0000578.txt,O=C(N1CCN(CC1)C1=CC=CC=C1)C1=CC=CC=C1,0.835722663,0.811816912,0.793887598,0.778946503,0.770728901,0.765499518,0.764752463,0.766246573,0.772223011,0.780440613,0.79187055,0.804346364,0.818839226,0.835199725,0.852157868,0.870311298,0.888315317,0.906468747,0.923651006,0.941132087,0.95659612,0.970192516,0.981473043,0.99058711,0.99686237,1,0.999925295,0.995293555,0.987673597,0.976990714,0.961825503,0.94308937,0.919161207,0.892252295,0.860808761,0.826705713,0.789069095,0.750573365,0.708730829,0.665820005,0.622139714,0.577981309,0.533897609,0.491576958,0.451265884,0.413412621,0.377441935,0.34420547,0.313860107,0.286458139,0.262141507,0.24115674,0.222667135,0.207016338,0.193733705,0.182169298,0.171665708,0.162872874,0.155155798,0.148753539,0.142635161,0.137854011,0.133416505,0.12965882,0.12597584,0.122778446,0.119468993,0.116570421,0.113171322,0.109637753,0.106537476,0.10263038,0.098685931,0.094644365,0.090946444,0.086606056,0.082504725,0.078261454,0.073271129,0.069035328,0.064553,0.060503963,0.056432515,0.05213695,0.047871268,0.043747525,0.040281191,0.03644133,0.033012349,0.030285599,0.027528967,0.025168274,0.022673111,0.020506653,0.01856431,0.01664438,0.015112917,0.013432044,0.011803465,0.010682883,0.009629536,0.008352072,0.007597547,0.006626376,0.005625322,0.005221913,0.004616798,0.00395939,0.003563451,0.003615745,0.003152571,0.002779044,0.002749161,0.002308399,0.002151518,0.002308399,0.002009577,0.001329757,0.001785461,0.002017048,0.001456757,0.000918877,0.001045877,0.00150158,0.001105641,0.00135964,0.001389522,0.000717173,0.001068288,0.001001053,0.000993583,0.000874054,0.000836701,0.000754525,0.000560291,0.000724643,0.000694761,0.000836701,0.000478115,0.000366057,0.000799349,0.000739584,0.000373527,0.000493056,0.000597644,0.000463174,0.000485586,0.000478115,0.000455703,0.000485586,0.000507997,0.000515468,0.000537879,0.000560291,0.000560291,0.000552821,0.000537879,0.000530409,0.000500527,0.000493056,0.000470644,0.000440762,0.000418351,0.000380998,0.000373527,0.000448233,0.000433292,0,0.000388468,0.000582703,0.000754525,0.00094876,0.000149411,0.000627526,0.000597644,0.000694761,0.000552821,0.000156881,0.00026894,0.00067982,0.000507997\nSRI-1053145-001.txt,O=S(=O)(NC1CCCCC1Sc1ccccn1)c1ccccc1,0.983490497,0.993201969,0.998057706,1,0.997086558,0.987375086,0.973779025,0.955327228,0.932990842,0.909683309,0.882491187,0.856270212,0.831020384,0.806741704,0.783919744,0.765759291,0.750997854,0.740121005,0.735362384,0.734488351,0.739344087,0.748278642,0.760223752,0.776733255,0.796253314,0.816647406,0.838886677,0.86054326,0.879189286,0.896087248,0.90744967,0.914344816,0.914053471,0.907255441,0.890949879,0.866515815,0.83283643,0.790076818,0.740499752,0.686164066,0.628128308,0.568276505,0.510250459,0.455827369,0.408610191,0.369133057,0.337483369,0.311747968,0.288595818,0.269658448,0.256441134,0.24929349,0.248739936,0.253469423,0.259772169,0.2642006,0.267347117,0.270988919,0.27759272,0.286896311,0.298151907,0.312136427,0.327587379,0.343213138,0.359596391,0.375911664,0.391508289,0.407337988,0.421341931,0.434306747,0.446222723,0.456507172,0.464256927,0.470025541,0.472735042,0.472783599,0.470792747,0.464567694,0.456011887,0.444610619,0.430422158,0.413232852,0.394237212,0.373678026,0.351118276,0.326577386,0.301599479,0.275932059,0.249934448,0.224470968,0.199638733,0.175496013,0.153586932,0.133571588,0.115236329,0.099290091,0.085189034,0.073282769,0.062978897,0.055034913,0.04828544,0.042856727,0.037991279,0.034291208,0.031659399,0.028911053,0.02678424,0.024298103,0.022753979,0.021530334,0.019947364,0.018723718,0.01708248,0.015800565,0.015382972,0.013547504,0.012207321,0.011207039,0.01009022,0.008866574,0.007730332,0.007400142,0.005943421,0.0050791,0.004952851,0.004331317,0.004098241,0.003418438,0.002359888,0.002660943,0.002602675,0.002107389,0.002214216,0.001777199,0.001165377,0.001398452,0.001816045,0.001145954,0.00105855,0.000757495,0.001107108,0.000602111,0.000738072,0.00105855,0.000942013,0.000864321,0.000825475,0.00072836,0.000718649,0.000650669,0.000553554,0.000475862,0.000407882,0.000339902,0.000301056,0.000271921,0.00026221,0.000242787,0.000223364,0.000233075,0.000233075,0.000252498,0.000281633,0.000320479,0.000310767,0.000310767,0.000378747,0.00066038,0.000378747,0.000106826,0.000631246,0.000407882,0,0.000825475,0.000252498,0.000145672,0.000281633,0.000223364,0.000116538,0.000485574,0.000407882\nSRI-0000034.txt,CC(=O)NC1=NN=C(S1)\\C=C\\C1=CC=C(O1)[N+]([O-])=O,0.305101167,0.297139982,0.289479218,0.282043771,0.275810013,0.270177099,0.264018446,0.258310426,0.252527301,0.245767804,0.238407462,0.230821805,0.222485092,0.213172007,0.204609977,0.196348369,0.188687606,0.181853003,0.175694351,0.170587175,0.166531477,0.163226834,0.160372824,0.157443708,0.154364382,0.151285056,0.147529779,0.143173659,0.138269268,0.132944287,0.126905803,0.119763267,0.112252715,0.104036171,0.095669416,0.086536584,0.077486368,0.068819191,0.059896655,0.05139471,0.043298334,0.035577486,0.02801436,0.021134694,0.015066168,0.009778739,0.005317471,0.002298229,0.000383038,0,0.000781097,0.00286152,0.00570802,0.010304478,0.015614438,0.022043471,0.029441365,0.03753023,0.046467787,0.056622054,0.067279528,0.078537846,0.090750004,0.103570517,0.116548751,0.13027053,0.144104967,0.157796704,0.171240593,0.184316465,0.196603728,0.209702131,0.22247007,0.234689739,0.246421222,0.257994983,0.269193216,0.278573896,0.286076938,0.292956604,0.297770868,0.302089436,0.305656948,0.308390789,0.310606402,0.311905728,0.313107416,0.31289712,0.311823111,0.30975771,0.306400493,0.302329773,0.297553062,0.291799979,0.285310862,0.277973052,0.270289757,0.262373635,0.254998273,0.24856924,0.242147718,0.236011596,0.230311087,0.225128806,0.221073108,0.2172953,0.214478843,0.212556141,0.211091584,0.210505761,0.210625929,0.211880192,0.214238505,0.217287789,0.220705091,0.225662055,0.231535307,0.238475057,0.245797846,0.254570171,0.264266294,0.274585793,0.286362339,0.298454328,0.312326318,0.327467592,0.343112072,0.359297313,0.375242215,0.391990747,0.408513962,0.425202409,0.443347904,0.461771289,0.480600243,0.499984979,0.519106845,0.539039851,0.559956739,0.579799618,0.599935409,0.62074715,0.641573911,0.661514428,0.68180043,0.701703393,0.715710573,0.72423505,0.734802397,0.756920974,0.783500819,0.807489523,0.826836706,0.84062608,0.849420936,0.857517312,0.866312169,0.875805507,0.88523876,0.896099019,0.907642738,0.921469665,0.937489673,0.955597615,0.972736695,0.985346912,0.992684722,0.996199661,0.999203881,0.999812236,1,0.99809983,0.995185736,0.991468013,0.986195605,0.979954336,0.972436273,0.963626395,0.954050441,0.943520647,0.931458699\nSRI-1053233-001.txt,OC(=O)CCCNS(=O)(=O)c1ccc(cc1)N1CCCC1=O,0.550360673,0.483569329,0.446166177,0.419449639,0.387389794,0.36334491,0.331285065,0.301896874,0.272508683,0.245792145,0.251135453,0.23510553,0.243120492,0.240448838,0.243120492,0.237777184,0.2137323,0.203045685,0.229762223,0.259150414,0.285866952,0.307240182,0.336628373,0.36334491,0.395404756,0.424792947,0.460325942,0.495858937,0.528185947,0.567459257,0.598717606,0.641196901,0.675394069,0.711194229,0.746727224,0.783596046,0.816457387,0.838097783,0.860539674,0.895271173,0.937216137,0.942559444,0.959925194,0.977290943,0.986641731,1,0.996794015,0.994923858,0.995458189,0.995191023,0.977023778,0.969275982,0.948437083,0.917445899,0.897408496,0.866684478,0.83649479,0.819396206,0.798824472,0.760619824,0.721613679,0.677531392,0.635853593,0.591771306,0.543414373,0.502270906,0.453646807,0.37376436,0.328613412,0.279989313,0.231899546,0.17445899,0.132514026,0.114346781,0.082821266,0.060379375,0.057974886,0.058776383,0.055570398,0.054234571,0.051562917,0.05717339,0.048624098,0.042479295,0.051830083,0.043547956,0.045150948,0.051028587,0.045418114,0.030189687,0.034731499,0.028586695,0.024044884,0.028853861,0.022709057,0.036334491,0.041677799,0.021907561,0.022976222,0.021640395,0.02831953,0.026449372,0.020571734,0.001602992,0.008282127,0.009083623,0.020571734,0.021106065,0.012556773,0.022441892,0.033662837,0.02831953,0.025647876,0.026449372,0.026983703,0.016029923,0.017098584,0,0.022174726,0.0138926,0.010686615,0.017365749,0.020304569,0.015228426,0.037135987,0.031258349,0.022174726,0.033128507,0.032594176,0.026182207,0.02484638,0.028052364,0.033930003,0.020304569,0.026983703,0.024312049,0.039807641,0.020304569,0.017098584,0.02137323,0.018701576,0.02831953,0.012022442,0.01442693,0.017098584,0.021907561,0.02137323,0.017632915,0.013091103,0.008282127,0.005610473,0.005076142,0.004541811,0.003740315,0.003740315,0.005610473,0.007213465,0.008816457,0.009885119,0.01095378,0.011755277,0.013091103,0.013358269,0.012289607,0.01041945,0.01041945,0.018701576,0.025113545,0.019503072,0.005610473,0.015228426,0.010152284,0.006679134,0.008816457,0.021640395,0.013358269,0.013091103,0.01790008,0.006679134,0.004274646,0.021640395\nSRI-1053223-001.txt,CCCCC(NS(=O)(=O)c1ccc2OCCOc2c1)C(O)=O,1,0.923373354,0.852315506,0.785489943,0.720891899,0.665872185,0.613525494,0.562515314,0.517964939,0.479874368,0.447798098,0.417058339,0.389659858,0.366493663,0.345332234,0.32818034,0.31281046,0.302786626,0.293653799,0.286525739,0.28073419,0.275610897,0.271378611,0.266700822,0.262023033,0.257567995,0.25222195,0.245762146,0.236629319,0.227496492,0.216158421,0.20352839,0.190786982,0.175684405,0.159935847,0.142873054,0.12817143,0.11391531,0.099770566,0.086182701,0.074933731,0.065689528,0.057670461,0.052413517,0.047802553,0.045931437,0.044572651,0.044750852,0.045151805,0.047156572,0.048604459,0.05161161,0.054396008,0.056957655,0.06058851,0.063417459,0.066135032,0.068585303,0.072327534,0.076047491,0.078854164,0.082663221,0.08549217,0.087986991,0.088855724,0.090704564,0.090749115,0.091439645,0.090994142,0.090147684,0.089479429,0.088120642,0.086160426,0.083064175,0.077495378,0.072082507,0.063640211,0.054262357,0.044216248,0.036063529,0.027754884,0.021072328,0.016038135,0.011449446,0.009132827,0.006816207,0.005212394,0.004477313,0.004544138,0.004031809,0.003051701,0.002695298,0.002673023,0.002427995,0.002472546,0.002205244,0.002294344,0.002561647,0.001692914,0.001737465,0.001046934,0.001715189,0.002494821,0.002517096,0.001603814,0.001447887,0.002383445,0.002739848,0.002227519,0.00231662,0.00231662,0.003229902,0.002071592,0.001603814,0.00120286,0.000579155,0.001024659,0.001314236,0.002673023,0.000490054,0,0.001581538,0.002205244,0.001358786,0.002450271,0.001893391,0.001536988,0.001626089,0.001692914,0.001381062,0.001692914,0.002517096,0.002093868,0.002004767,0.001403337,0.00120286,0.002071592,0.00115831,0.001046934,0.00120286,0.001024659,0.001470162,0.001715189,0.002071592,0.001225135,0.000846457,0.00064598,0.001024659,0.001782015,0.002205244,0.002561647,0.002784398,0.002673023,0.00236117,0.001960217,0.00180429,0.001670639,0.001581538,0.001492438,0.001470162,0.001492438,0.001559263,0.001603814,0.001603814,0.001470162,0.001269686,0.001559263,0.002160693,0.00120286,0.00180429,0.001225135,0.00115831,0.001536988,0.001715189,0.002049317,0.001002383,0.001247411,0.001470162,0.001381062,0.00120286,0.001536988\nSRI-1053329-001.txt,OC(=O)[C@H](NS(=O)(=O)c1ccccc1)c1ccccc1,1,0.98630137,0.966502568,0.938784247,0.904644692,0.862478596,0.815496575,0.762093322,0.708154966,0.652718322,0.596425514,0.540667808,0.484803082,0.432041952,0.381742295,0.334439212,0.291630993,0.252568493,0.218321918,0.187714041,0.161494007,0.138805651,0.119541952,0.103381849,0.09171661,0.082940925,0.07619863,0.071275685,0.067358733,0.064982877,0.063495291,0.063356164,0.063741438,0.064544092,0.065089897,0.066117295,0.06713399,0.068247003,0.071532534,0.074732449,0.075909675,0.075374572,0.074443493,0.07421875,0.075117723,0.077001284,0.078809932,0.07781464,0.072613442,0.065614298,0.059289384,0.055800514,0.054719606,0.055811216,0.054248716,0.048052226,0.040132705,0.031110873,0.024101027,0.019616866,0.01609589,0.013398973,0.011900685,0.010873288,0.010038527,0.009578339,0.009000428,0.008401113,0.0078125,0.006881421,0.007020548,0.006528253,0.005768408,0.005565068,0.00499786,0.004655394,0.003413955,0.002622003,0.002407962,0.002268836,0.001851455,0.001434075,0.001273545,0.001123716,0.001209332,0.000845462,0.000717038,0.000824058,0.000706336,0.000663527,0.000845462,0.000866866,0.000642123,0.001080908,0.000877568,0.000428082,0.000267551,0.001102312,0.000877568,0.000406678,0.000963185,0.000770548,0.000717038,0.000877568,0.000545805,0.001016695,0.000845462,0.000866866,0.000652825,0.000791952,0.000973887,0.00041738,0.000449486,0.000246147,0.000684932,0.000428082,0.000695634,0.000235445,0.000299658,0.00047089,0.000492295,0.000652825,0.000738442,0.000931079,0.000353168,0.000631421,0.000888271,0.00072774,0.000684932,0.000759846,0.000545805,0.000610017,0.000984589,0.000652825,0.00047089,0.000759846,0.000877568,0.000481592,0.000385274,0.000321062,0.000749144,0.000813356,0.000738442,0.00047089,0.000321062,0.000374572,0.000374572,0.00041738,0.000449486,0.00041738,0.000374572,0.000353168,0.000331764,0.00031036,0.00031036,0.000288955,0.000256849,0.000235445,0.000256849,0.000278253,0.000299658,0.000299658,0.00031036,0.00036387,0.000492295,0.000631421,0.000599315,0.000717038,0.000545805,0,0.000588613,0.000931079,0.000524401,0.00036387,0.00041738,0.000749144,0.000342466,0.000406678,0.000952483,0.000481592,0.000278253\nSRI-1053251-001.txt,CC(C)C[C@H](NC(=O)Cn1nnc2ccccc2c1=O)C(O)=O,0.98148281,0.988862354,0.995046139,0.999077557,1,0.997574316,0.989989785,0.976973089,0.958968367,0.937888835,0.913632,0.88776943,0.857772949,0.822720114,0.77980943,0.72890424,0.671644443,0.611958962,0.55309343,0.498156822,0.449472328,0.408543189,0.374207809,0.346227037,0.3236101,0.304549694,0.288451355,0.273982665,0.261054797,0.249172364,0.238236289,0.228704378,0.220381891,0.213272247,0.20675365,0.200884179,0.195021541,0.188779676,0.182882874,0.177498539,0.172766748,0.169527948,0.167911965,0.168188698,0.170084831,0.173846348,0.178834374,0.185117236,0.192302042,0.200228219,0.208574621,0.217262667,0.226206948,0.235222975,0.24389394,0.252776724,0.261457938,0.270241646,0.278728122,0.28653814,0.293852771,0.300152716,0.305297898,0.309096997,0.311895074,0.313394898,0.313500808,0.312192305,0.31018343,0.307211113,0.303063536,0.298058428,0.292431526,0.286015422,0.279797473,0.27358294,0.267901374,0.262845019,0.258434375,0.25473777,0.251591214,0.248058599,0.243928104,0.238779505,0.232025172,0.224416726,0.215557856,0.206210433,0.197153409,0.188851422,0.181769109,0.176500934,0.173173307,0.17123276,0.170231738,0.168277526,0.164037704,0.156661576,0.145927072,0.132527733,0.11768665,0.102059781,0.086736977,0.07271926,0.060495181,0.049733346,0.040833479,0.033488099,0.027522967,0.022681849,0.018872501,0.015691781,0.013115773,0.011024903,0.009159518,0.007775853,0.006351191,0.005199846,0.004581467,0.003734186,0.00319097,0.002832242,0.002442766,0.002145534,0.001902966,0.001670647,0.001329001,0.001223091,0.00112743,0.000942942,0.000819949,0.000789201,0.000796034,0.00059788,0.000522718,0.000594463,0.000550049,0.000406558,0.000338229,0.000304065,0.000150324,0.000239152,0.000191322,0.000198154,0.000191322,0.00021182,0.000218653,0.000191322,0.000143491,9.22E-05,5.81E-05,5.12E-05,3.42E-05,1.37E-05,0,6.83E-06,2.73E-05,5.12E-05,6.83E-05,7.86E-05,8.88E-05,0.000102494,0.00010591,9.91E-05,7.17E-05,6.83E-05,0.000136658,0.000187905,0.000290399,0.00010591,7.17E-05,2.39E-05,2.39E-05,0.000119576,8.54E-05,3.42E-05,0.000116159,1.71E-05,0,7.86E-05,0.000150324\nSRI-1052887-001.txt,CC(C)[C@H](NC(=O)COc1ccc2C(=O)CC3(CCN(CC3)C(C)=O)Oc2c1)C(O)=O,1,0.922744946,0.855843082,0.801601368,0.762101698,0.736443792,0.722095621,0.715624877,0.713374183,0.711404827,0.708141321,0.702570855,0.693624348,0.682089544,0.667966442,0.650073429,0.625146998,0.590317517,0.543953231,0.485266398,0.41971495,0.352588016,0.290356341,0.238140252,0.199034452,0.172026131,0.15660888,0.150008721,0.150925879,0.157587932,0.168515049,0.182610017,0.199377683,0.218874316,0.240407826,0.264310191,0.290097511,0.317381543,0.346955656,0.377778903,0.410020087,0.44295336,0.476589974,0.51091305,0.544662199,0.577781154,0.609476545,0.639422022,0.667251847,0.692465241,0.713419197,0.730473827,0.743657264,0.751607839,0.754646275,0.752018591,0.744360606,0.730659509,0.711663656,0.687913213,0.659785171,0.628151674,0.593935506,0.558070706,0.521845794,0.485694029,0.450830787,0.417616178,0.38700112,0.359019373,0.334531828,0.313184,0.295763632,0.281539249,0.270567118,0.262824733,0.257529976,0.254891038,0.254345245,0.255993878,0.259122342,0.263533701,0.268952246,0.275338589,0.281995015,0.288747095,0.296039342,0.303055879,0.310027402,0.316734469,0.322878862,0.328426822,0.333125144,0.337345194,0.340091041,0.341660899,0.342139172,0.340929424,0.338228592,0.334385533,0.329017629,0.322046105,0.31349347,0.304169972,0.293456671,0.282040029,0.269278596,0.255920731,0.241476905,0.226290351,0.210867474,0.194656854,0.178738824,0.162697006,0.146705829,0.131226684,0.116400241,0.102080203,0.089223117,0.077243801,0.066164762,0.056250457,0.047489633,0.040039837,0.033327144,0.027469714,0.022940193,0.018646996,0.015479145,0.012553243,0.010291296,0.008440101,0.006932136,0.005502946,0.00444512,0.003713644,0.002909021,0.002391362,0.002087518,0.001631753,0.001451697,0.001024066,0.000939665,0.00084401,0.000579554,0.000714595,0.000798996,0.000832757,0.00082713,0.000737102,0.000647074,0.0005683,0.000472646,0.000405125,0.000354484,0.000315097,0.000286963,0.00025883,0.000225069,0.000213816,0.000196936,0.000185682,0.000174429,0.000185682,0.000196936,0.000213816,0.00025883,0.000348857,0.000185682,0.000270083,0.00029259,0.000213816,0,0.000264456,0.000180055,0.000281337,0.00030947,2.25E-05,0.00027571,0.000264456,7.31E-05\nSRI-0000632.txt,COC1OC2COC(OC2C(O)C1NC(C)=O)C1=CC=CC=C1,1,0.759974567,0.618502623,0.532665713,0.459545382,0.419806072,0.381656334,0.356223176,0.33873788,0.321252583,0.308536004,0.295819425,0.279923701,0.278334128,0.271975838,0.265617549,0.264027976,0.260848832,0.262438404,0.260848832,0.260848832,0.267207121,0.273565411,0.278334128,0.28628199,0.291050707,0.297408997,0.300429185,0.309648704,0.324749642,0.32951836,0.335876649,0.336512478,0.341758067,0.347798442,0.364965824,0.377046574,0.384358608,0.362263551,0.350341758,0.342075982,0.341281195,0.331743761,0.314894293,0.281513273,0.24829121,0.219519949,0.209187729,0.1866158,0.148148148,0.105070736,0.071530758,0.049435702,0.038944524,0.024956287,0.02130027,0.014306152,0.013193451,0.012239708,0.010332221,0.015418852,0.017803211,0.019551741,0.013034494,0.010014306,0.017326339,0.011127007,0.004132888,0.005722461,0.00921952,0.012557622,0.005404546,0.01096805,0.008901605,0.006517247,0.008424734,0.008424734,0,0.010491178,0.006994119,0.006994119,0.004927674,0.005881418,0.00635829,0.008424734,0.014147194,0.012398665,0.013193451,0.017962168,0.01382928,0.01669051,0.019710698,0.026227945,0.022254014,0.022254014,0.030042918,0.027976474,0.030678747,0.030996662,0.038149738,0.032427277,0.03687808,0.039421396,0.043077412,0.037831823,0.045938643,0.047846129,0.050230488,0.049117787,0.049912574,0.048323001,0.047687172,0.046733429,0.053727547,0.056270863,0.044825942,0.050389445,0.049594659,0.05070736,0.054204419,0.064218725,0.065490383,0.062629153,0.062152281,0.053091718,0.063741853,0.065967255,0.067556827,0.067715784,0.080591321,0.083293594,0.081704022,0.086790653,0.08583691,0.099189318,0.101255762,0.114926085,0.116674615,0.12557622,0.133365125,0.133206168,0.1394055,0.150850421,0.159752027,0.171832777,0.175647751,0.177078366,0.178985853,0.185026228,0.197106978,0.209982515,0.221268479,0.22985217,0.235256716,0.238753775,0.241138134,0.243999364,0.247019552,0.250357654,0.254172628,0.25862343,0.264027976,0.270545223,0.277380385,0.284215546,0.290255921,0.294865681,0.301382928,0.302495629,0.305515816,0.30933079,0.309966619,0.306310602,0.305038945,0.306151645,0.30758226,0.297885869,0.302813543,0.30011127,0.298680655,0.301700842\nSRI-1053137-001.txt,COC(=O)[C@H](CCSC)NC(=O)Cn1nnc2ccccc2c1=O,0.993310338,0.996446117,0.999163792,1,0.998571478,0.99299676,0.982822898,0.967562106,0.946935647,0.923138567,0.897320651,0.86895927,0.83641685,0.796731821,0.748824083,0.69244974,0.630500679,0.567750253,0.507578133,0.452911048,0.406153096,0.366990697,0.335110275,0.309849831,0.290094422,0.273405108,0.259363785,0.246820668,0.235322811,0.224664646,0.214957667,0.2064388,0.19902094,0.192418383,0.186463886,0.180760252,0.174861503,0.168962754,0.163401972,0.158614682,0.154907495,0.152740323,0.152395387,0.153977213,0.157196613,0.161792272,0.167826905,0.174997387,0.182711404,0.191111808,0.199606285,0.208348141,0.217361764,0.226274346,0.234883802,0.243538553,0.251869273,0.259900352,0.26749939,0.274429462,0.280279433,0.285216543,0.289007352,0.291756385,0.293338211,0.293613463,0.293083865,0.29166928,0.289707676,0.286756559,0.283213128,0.278924079,0.273861538,0.268210167,0.26262848,0.256956204,0.251757778,0.247217867,0.243402669,0.240043901,0.236897669,0.233476185,0.229065189,0.223378976,0.215995958,0.20763388,0.198261385,0.189073551,0.180460611,0.173154245,0.167311244,0.163318351,0.161144211,0.160071078,0.158956134,0.155914428,0.150308352,0.141322602,0.129329989,0.114982056,0.10010801,0.085310616,0.071394725,0.059308038,0.048590641,0.039688513,0.032437894,0.026469461,0.021849413,0.017863489,0.01490192,0.012372391,0.010229609,0.008508414,0.007052019,0.005930107,0.005146162,0.004125292,0.003679314,0.00297899,0.002675865,0.002271698,0.001829205,0.001588795,0.001540016,0.001254312,0.001055712,0.000850145,0.000780461,0.000829239,0.000627156,0.000571409,0.00052263,0.000536567,0.00045643,0.000526114,0.00045643,0.000386746,0.000254347,0.000264799,0.000376294,0.000341452,0.00028222,0.000292673,0.000299641,0.000236926,0.000243894,0.000254347,0.000250862,0.000212536,0.000184663,0.000163757,0.000142852,0.000139368,0.000128915,0.000128915,0.000121947,0.000118463,0.000118463,0.000118463,0.000111494,0.000104526,9.41E-05,8.36E-05,8.36E-05,8.36E-05,9.06E-05,0.000170726,0,0.000202084,0.000121947,0.000156789,8.36E-05,0.000202084,0.00028222,7.67E-05,0.000177694,0.000243894,0.000209052,0.000139368,8.71E-05\nSRI-1053127-001.txt,OC(=O)C(Cc1ccccc1)NS(=O)(=O)c1ccc2ccccc2c1,0.694832402,0.725384078,0.758336243,0.793907123,0.830350908,0.866576466,0.902802025,0.936408869,0.964778282,0.986600908,0.99834148,1,0.988674057,0.96259602,0.920020077,0.860378841,0.783301327,0.693632158,0.598681913,0.504953736,0.41929993,0.344491969,0.281620985,0.230337814,0.189638617,0.15749389,0.132856145,0.113848638,0.09940206,0.088468925,0.080460021,0.074650838,0.070735859,0.068261173,0.066912535,0.066504452,0.066650663,0.067414455,0.068605971,0.069865136,0.071294518,0.072795915,0.074423883,0.076405377,0.078696753,0.081090695,0.083401711,0.085372294,0.086952252,0.088270339,0.088918471,0.089208712,0.089464036,0.089922311,0.090642458,0.091552462,0.092394815,0.092903282,0.092837814,0.091779417,0.089760824,0.086954434,0.083691952,0.080298534,0.077184445,0.074323499,0.071735335,0.069203911,0.066864525,0.063870461,0.060446491,0.056542423,0.051974948,0.046979749,0.042043471,0.037305779,0.033104923,0.029192126,0.025864176,0.022885388,0.020432524,0.018407385,0.016733589,0.015491882,0.014538233,0.013684969,0.013183048,0.012905901,0.013060841,0.013534392,0.014189071,0.014874302,0.015112168,0.0150467,0.014645164,0.014250175,0.014036313,0.013772259,0.013423097,0.012932088,0.012430168,0.011971892,0.012124651,0.012971369,0.01440948,0.016026536,0.017194047,0.017185318,0.015954522,0.013735161,0.011131721,0.008554469,0.00613434,0.004460545,0.003290852,0.002239001,0.001680342,0.001252619,0.00096456,0.000709235,0.000591393,0.000573935,0.000399354,0.000412448,0.000336068,0.000272783,0.000309881,0.000242231,0.000174581,0.000283694,0.000270601,0.000272783,0.000235684,0.000126571,0.000168034,0.000209497,0.000141847,0.000141847,0.000178946,0.000178946,0.000172399,6.33E-05,0.000139665,0.000257507,0.000117842,0.000109113,0.000122207,0.000106931,9.17E-05,8.51E-05,8.95E-05,9.82E-05,9.82E-05,9.6E-05,8.95E-05,8.07E-05,7.86E-05,7.86E-05,7.86E-05,8.51E-05,9.17E-05,9.82E-05,0.000111295,0.00011566,0.00011566,9.82E-05,0.000111295,0.000130936,0.00011566,0.000196404,0,8.51E-05,0.000176763,0.000159305,0.00018331,0.000205133,0.000109113,0.00011566,4.15E-05,0,7.86E-05\nSRI-0000424.txt,CN(C)C(=O)C1=CC=NC2=CC=CC=C12,0.647087556,0.650751007,0.665404811,0.672731713,0.682500916,0.710587373,0.730125778,0.763096837,0.791183295,0.830260105,0.863231164,0.904750275,0.942605935,0.971913543,0.994993284,1,0.99902308,0.985834656,0.951764562,0.899377213,0.820735132,0.721089266,0.604591525,0.489559165,0.383685432,0.292221272,0.219318598,0.166442789,0.13054097,0.108438149,0.094761265,0.083404567,0.079008426,0.076810355,0.0771767,0.075100745,0.07497863,0.077787276,0.079496886,0.081084381,0.07424594,0.079496886,0.079008426,0.075589205,0.078764196,0.075833435,0.084259372,0.086945903,0.079985346,0.079252656,0.084869947,0.084015142,0.080718036,0.083526682,0.081572842,0.083648797,0.082671877,0.080595921,0.086213213,0.088777629,0.091586274,0.090243009,0.09268531,0.09268531,0.095738185,0.100134327,0.100500672,0.101233362,0.108438149,0.109170839,0.110147759,0.116741971,0.119306387,0.118940042,0.123702528,0.131151545,0.137623641,0.139943827,0.141409207,0.146538039,0.148858224,0.155452436,0.156795702,0.164244719,0.167663939,0.173647576,0.176700452,0.182561973,0.182928318,0.184515814,0.18952253,0.191110026,0.1892783,0.18903407,0.186591769,0.18756869,0.197704237,0.202222494,0.201611918,0.200146538,0.203321529,0.184393699,0.175479302,0.172060081,0.155696666,0.147148614,0.1332275,0.119794847,0.116131396,0.102698742,0.096959336,0.09463915,0.080351691,0.079496886,0.072047869,0.066919038,0.065087312,0.05824887,0.053730614,0.049456588,0.051898889,0.049578703,0.046281597,0.044327757,0.036268165,0.034802784,0.029307608,0.028086457,0.028574918,0.026743192,0.025522042,0.028086457,0.023934546,0.01990475,0.021125901,0.016241299,0.013921114,0.015630724,0.011234583,0.011234583,0.011112468,0.012699963,0.011478813,0.011723043,0.010379778,0.008792282,0.007937477,0.007326902,0.006472097,0.005739407,0.004884601,0.004029796,0.003663451,0.004029796,0.004029796,0.004151911,0.004274026,0.004396141,0.004396141,0.004640371,0.004640371,0.004640371,0.004640371,0.004762486,0.004884601,0.004518256,0.002442301,0.005495176,0.013554769,0.005128831,0.003052876,0.004518256,0.008914397,0.002075956,0.000366345,0.001343265,0.00024423,0.002930761,0,0.004396141,0.004640371\nSRI-1022907-002.txt,ClC1=C(NC(=S)NC(=O)CCN2C(=O)C3=CC=CC=C3C2=O)C=CC=C1,1,0.991743132,0.973075432,0.942919916,0.902353566,0.852812361,0.79860423,0.744755094,0.696290871,0.655365528,0.623774035,0.600439409,0.579976737,0.559442267,0.53740002,0.515142377,0.495469493,0.479063456,0.466606356,0.458672583,0.452820977,0.44388202,0.426901592,0.400515516,0.370790793,0.341999454,0.318700728,0.301397206,0.288976005,0.280431942,0.274472637,0.270092908,0.266499375,0.263164319,0.259577966,0.255851606,0.251931389,0.247616278,0.243053461,0.238027542,0.232674938,0.226995649,0.220645041,0.213766711,0.20637143,0.198523816,0.190457215,0.182882437,0.175512285,0.169165267,0.164107038,0.16022272,0.157594882,0.156266603,0.156133776,0.157002542,0.158600066,0.160797111,0.163568546,0.166515889,0.169728888,0.173124973,0.176790304,0.180365887,0.183682994,0.186813424,0.189437671,0.191652666,0.193354299,0.19450667,0.195296457,0.196104194,0.196757564,0.196955011,0.197191947,0.197310415,0.197249386,0.196929881,0.19639857,0.195371846,0.193935869,0.192169618,0.189746406,0.186802654,0.183428108,0.179403782,0.174772757,0.169430922,0.163748043,0.157436925,0.15084938,0.144193627,0.137290168,0.129923606,0.122966298,0.115833082,0.108829104,0.10162409,0.094796019,0.088075647,0.081628111,0.075349301,0.069120751,0.063060929,0.057503698,0.052097244,0.047225692,0.042777754,0.038695989,0.034980399,0.031756631,0.028794928,0.026256839,0.024027485,0.022099686,0.020387283,0.019105674,0.017813294,0.016524505,0.015214176,0.014086934,0.01309611,0.011936559,0.010680079,0.009825672,0.009211792,0.008307127,0.007686067,0.006975258,0.006623444,0.006059823,0.00562544,0.005366964,0.005025919,0.004652565,0.004329471,0.004236132,0.004099714,0.003913037,0.003834059,0.003633022,0.003385316,0.003223768,0.003033501,0.002850414,0.002649378,0.002570399,0.00251296,0.002441161,0.002279613,0.002064217,0.00187395,0.001730352,0.001615474,0.001536495,0.001479056,0.001414437,0.001335459,0.0012493,0.001159551,0.001059033,0.000962105,0.000854406,0.000739528,0.00063183,0.000574391,0.000549261,0.00061747,0.000434383,0.000269246,0.000211807,0.000405663,0.000305145,0.000283605,0.000272836,0.000412843,0.000179497,0.000193857,0.000218986,4.31E-05,0\nSRI-1053380-001.txt,C1CC(C1)c1nc2nccc(-c3cccs3)n2n1,0.980610761,0.980610761,0.932137664,0.932137664,0.932137664,0.883664566,0.883664566,0.883664566,0.980610761,1,0.980610761,0.990305381,0.990305381,0.966068832,0.932137664,0.893359186,0.830344159,0.781871062,0.733397964,0.709161415,0.680077557,0.646146389,0.612215221,0.568589433,0.524963645,0.505574406,0.44255938,0.413475521,0.369849733,0.331071255,0.297140087,0.275811924,0.23364033,0.212796898,0.178380999,0.173048958,0.153659719,0.131362094,0.103732429,0.092098885,0.089190499,0.113911779,0.078041687,0.075618032,0.068831798,0.052835676,0.066408143,0.044110519,0.059137179,0.063499758,0.053320407,0.035385361,0.054289869,0.050412021,0.039263209,0.041202133,0.03005332,0.027629666,0.026175473,0.041686864,0.022297625,0.01987397,0.021328163,0.018904508,0.017450315,0.022297625,0.032476975,0.046534174,0.045079981,0.046049443,0.049442559,0.046534174,0.046534174,0.039263209,0.041202133,0.033931168,0.045564712,0.036354823,0.049442559,0.032961706,0.051381483,0.058167717,0.051866214,0.058652448,0.055259331,0.051866214,0.04459525,0.075618032,0.070285991,0.065923413,0.067862336,0.059137179,0.056228793,0.061076103,0.066408143,0.058652448,0.05962191,0.074163839,0.060591372,0.060106641,0.071740184,0.071255453,0.072709646,0.06980126,0.079011149,0.066892874,0.06446922,0.108579738,0.085312651,0.09936985,0.088221037,0.088221037,0.114881241,0.093068347,0.096461464,0.114881241,0.111972855,0.127484246,0.103732429,0.110518662,0.136694135,0.126999515,0.095976733,0.10470189,0.1095492,0.110033931,0.131362094,0.132331556,0.091129423,0.1095492,0.127484246,0.140571983,0.110518662,0.093553078,0.093553078,0.095007271,0.097430926,0.095007271,0.079011149,0.06980126,0.074163839,0.075133301,0.07949588,0.067862336,0.062530296,0.058167717,0.053805138,0.055744062,0.056228793,0.050896752,0.041202133,0.032476975,0.026175473,0.021328163,0.017935046,0.01502666,0.012603005,0.011633543,0.010664081,0.009209889,0.007755696,0.006301503,0.005332041,0.003393117,0.000969462,0,0.005816772,0.027629666,0.015511391,0.003393117,0.001454193,0.009209889,0.017450315,0.016965584,0.009209889,0.012118274,0.018904508,0.015511391,0.023751818,0.002423655,0.01502666\nSRI-1052956-001.txt,CN(c1c(C)ccc(c1C)S(=O)(=O)NC(CC(O)=O)C(O)=O)S(C)(=O)=O,1,0.992380317,0.986937686,0.983164128,0.979898549,0.978156907,0.975979855,0.973077118,0.968215035,0.962119288,0.953048236,0.940421332,0.923440323,0.902395483,0.875472602,0.842961952,0.804936104,0.761903034,0.714225586,0.66190376,0.607187176,0.54935015,0.490134324,0.430192814,0.371557536,0.315600032,0.264083715,0.217661701,0.17775633,0.144099099,0.116827889,0.095057365,0.078751243,0.066320273,0.057212937,0.050754349,0.046168025,0.043664415,0.041857461,0.041407537,0.041922773,0.042648457,0.043751497,0.045101269,0.046487326,0.047742759,0.049564227,0.051131704,0.052880603,0.054868978,0.05773543,0.060151958,0.061987939,0.063555417,0.063678783,0.062851503,0.061356594,0.059752832,0.058410316,0.057365331,0.056864609,0.057365331,0.057140369,0.055072169,0.050253627,0.042945987,0.034332117,0.026131886,0.01936851,0.013933135,0.010457108,0.007721279,0.005565997,0.004245252,0.003396202,0.002873709,0.002597949,0.002307676,0.001901292,0.001574735,0.001284461,0.00140057,0.001248177,0.001219149,0.000754712,0.001066756,0.001088526,0.000834537,0.000936133,0.000783739,0.000587804,0.001088526,0.000754712,0.00055152,0.000558777,0.000805509,0.00082728,0.000566034,0.000812766,0.000580547,0.000812766,0.000653116,0.000703914,0.000921619,0.000950646,0.000478952,0.000761968,0.000718427,0.000892591,0.000624088,0.000384613,0.000442667,0.000558777,0.000870821,0.000936133,0.000790996,0.000420897,0.000464438,0.000406383,0.000566034,0.000370099,0.000696657,0.000863564,0.000515236,0.000747455,0.000914362,0.000667629,0.000645859,0.00071117,0.000725684,0.000761968,0.000667629,0.000428154,0.000406383,0.001074013,0.000587804,0.000645859,0.000537006,0.000566034,0.000790996,0.000428154,9.43E-05,0.000188678,0.000493465,0.000348328,0.000326558,0.000319301,0.000283017,0.000232219,0.000166907,0.000123366,0.000108853,0.000116109,0.00013788,0.000174164,0.000203192,0.000217705,0.000224962,0.000239476,0.000246733,0.000239476,0.000217705,0.000188678,0.00013788,0.000101596,6.53E-05,3.63E-05,0.000253989,9.43E-05,0.000217705,0.000442667,0,0.000384613,0.000224962,0.000217705,0.000152394,0.000159651,2.18E-05,0,2.9E-05,0.000464438\nSRI-0000418.txt,CCCCNC1=CC=C(C=C1)S(=O)(=O)C1=CC=C(N)C=C1,0.467383046,0.425051558,0.383805492,0.344730272,0.308911321,0.277434061,0.248127646,0.222077499,0.202539889,0.184087702,0.169977206,0.15966569,0.15347878,0.148377293,0.146640617,0.146857701,0.148377293,0.15109085,0.155106914,0.160208401,0.1658526,0.171930967,0.178986215,0.18636709,0.195159014,0.204168023,0.213719744,0.224682514,0.236947791,0.250407034,0.265820037,0.282318463,0.300510149,0.320774992,0.342950179,0.366275914,0.391294909,0.416715511,0.443471182,0.469087159,0.493823944,0.517518724,0.538120048,0.556322588,0.570367958,0.579474655,0.58362097,0.581851731,0.574785629,0.562987083,0.54870292,0.5341474,0.519798111,0.508802779,0.501345924,0.499044828,0.501649843,0.508531423,0.51981982,0.534549007,0.552979486,0.572842722,0.594670574,0.61897319,0.642429176,0.666938022,0.691121242,0.716205362,0.741028981,0.764680343,0.788429393,0.811049604,0.833235645,0.853413655,0.873732769,0.893270379,0.910951916,0.927721698,0.943536307,0.956984696,0.969770976,0.980212743,0.988906979,0.995538912,0.998849452,1,0.998491262,0.993389775,0.985086291,0.972506241,0.95537827,0.93422338,0.908715945,0.879300988,0.845359818,0.807218061,0.765223054,0.720145447,0.672571367,0.6236188,0.572755888,0.52228373,0.4711169,0.421675893,0.373635081,0.328546619,0.286432215,0.246890264,0.211983067,0.179366113,0.150548138,0.125388039,0.104504505,0.086150005,0.070411375,0.0571258,0.04652122,0.037533919,0.030337566,0.024346033,0.019765549,0.016172799,0.013263866,0.011082167,0.009128406,0.007663085,0.006306306,0.005383697,0.004916965,0.004113752,0.003885814,0.003462499,0.003321394,0.002680994,0.00210572,0.00238793,0.002507327,0.00141105,0.001638988,0.00169326,0.001367633,0.001530446,0.001508738,0.001573863,0.001476175,0.001400195,0.0015413,0.001682405,0.001682405,0.0015413,0.001400195,0.001280799,0.001193965,0.001139694,0.001063714,0.001020297,0.000998589,0.000987735,0.000987735,0.000987735,0.000987735,0.001009443,0.001063714,0.001172257,0.001226528,0.001063714,0.000835776,0.000293064,0.000824921,0.000748942,0.000575274,0.000510149,0.000173668,0.000814067,0.000748942,0.000445023,0.000814067,0.000412461,0.000672962,0,0.000738087\nSRI-0000368.txt,CCOC(CN(C)CCN(C)C)OCC1=CC=CC=C1,1,0.793928651,0.623310437,0.492577,0.412807445,0.348548637,0.321958786,0.297584755,0.282074008,0.275426546,0.275426546,0.277642366,0.277642366,0.270994904,0.257699978,0.259915799,0.259915799,0.244405052,0.231110126,0.216485708,0.19765123,0.17017505,0.15111899,0.124972302,0.095945048,0.079104808,0.070684689,0.07290051,0.071792599,0.066696211,0.080877465,0.082871704,0.079769555,0.07932639,0.087303346,0.084865943,0.093950809,0.097496122,0.099933525,0.102592511,0.096388212,0.089740749,0.097496122,0.092621316,0.085973853,0.081985376,0.079769555,0.075559495,0.067139375,0.054066031,0.047640151,0.040106359,0.029027255,0.027697762,0.016397075,0.016840239,0.011743851,0.011743851,0.025925105,0.018391314,0.020385553,0.013073344,0.012408597,0.016175493,0.013294926,0.017726568,0.007312209,0.015732329,0.011965433,0.014181254,0.021493463,0.01905606,0.019942389,0.013294926,0.012408597,0.010414359,0.006869045,0.010857523,0.011079105,0.017061821,0.012408597,0.012851762,0.009971194,0.021271881,0.009971194,0.013294926,0.009084866,0.014402836,0.018834478,0.012187015,0.015510747,0.013959672,0.015953911,0.011965433,0.021936628,0.023930866,0.009749612,0.009306448,0.021493463,0.025481941,0.005096388,0.021050299,0.018834478,0.010857523,0.013073344,0.006204299,0.00952803,0.007533791,0.014846,0.007755373,0.00952803,0.01905606,0.002658985,0.002215821,0,0.006204299,0.016175493,0.011965433,0.009971194,0.00842012,0.016175493,0.011522269,0.016618657,0.011743851,0.008641702,0.006425881,0.010414359,0.006869045,0.013959672,0.010635941,0.014846,0.024817195,0.021493463,0.012630179,0.017504986,0.016840239,0.027254598,0.012187015,0.00421006,0.015953911,0.013959672,0.005539552,0.00842012,0.015510747,0.006647463,0.004874806,0.007312209,0.009971194,0.009749612,0.007976955,0.006869045,0.005761135,0.005096388,0.004653224,0.004653224,0.004874806,0.004653224,0.004874806,0.00531797,0.005761135,0.005982717,0.006204299,0.007090627,0.00842012,0.010192776,0.008863284,0.00421006,0.007755373,0.010857523,0.002437403,0.010192776,0.010414359,0.006204299,0.009084866,0.007755373,0.007755373,0.006869045,0.003102149,0.007755373,0.005982717,0.005539552\nSRI-0000426.txt,CC(O)(C1=NC2=CC(Cl)=CC=C2O1)C1=CC=CC=C1,1,0.929352117,0.869093629,0.817146657,0.775589079,0.742343016,0.717408469,0.704941196,0.702863317,0.709096954,0.721564227,0.740265137,0.758966047,0.777666958,0.797199019,0.812159747,0.820055687,0.824419233,0.823795869,0.815276566,0.799276898,0.775589079,0.744213107,0.706187923,0.663799194,0.61787807,0.570086855,0.52042555,0.471387608,0.42193409,0.374558451,0.328845115,0.287495325,0.249885717,0.216785106,0.189419441,0.167435482,0.151643602,0.140942526,0.134106304,0.129181731,0.128038898,0.129493413,0.13331671,0.139508789,0.148235881,0.15700453,0.166043303,0.176785937,0.187570128,0.20109712,0.216140963,0.23147571,0.248576653,0.262934796,0.274550139,0.284295391,0.293147155,0.304783277,0.319744005,0.337302082,0.351909571,0.360366538,0.358891244,0.344553879,0.322653036,0.301313219,0.289406973,0.289303079,0.296097743,0.29717824,0.281885052,0.246519553,0.198707559,0.149337157,0.106470515,0.073723143,0.050845697,0.034638241,0.02487221,0.018389228,0.013963346,0.011594564,0.009475128,0.007147903,0.007189461,0.006358309,0.005734946,0.005173918,0.005070025,0.004425882,0.004010306,0.003677846,0.003615509,0.003220712,0.002971367,0.002472676,0.00222333,0.002036321,0.002348003,0.001786976,0.002805137,0.002015543,0.001807755,0.001496073,0.001454515,0.001807755,0.001267506,0.002077879,0.001101276,0.001059718,0.000955824,0.00085193,0.001433736,0.000914267,0.001038939,0.002036321,0.001683082,0.001246727,0.001018161,0.001703861,0.002638906,0.002431118,0.001807755,0.002077879,0.002244109,0.001516852,0.001516852,0.002493455,0.001454515,0.001038939,0.001870091,0.001911649,0.000997382,0.001350621,0.001475294,0.001786976,0.000893488,0.000415576,0.001142833,0.000831152,0.00085193,0.001018161,0.001766197,0.001246727,0.001080497,0.001225949,0.001392179,0.0013714,0.001288285,0.001225949,0.001163612,0.001142833,0.001142833,0.001080497,0.001018161,0.000935046,0.000872709,0.000810373,0.000789594,0.000727258,0.000664921,0.000623364,0.000664921,0.0006857,0.000561027,0.000270124,0.00051947,0.001703861,0.000498691,0,0.000768815,0.000768815,0.001309064,0.000976603,0.000187009,0.00051947,0.000332461,0.001142833,0.000311682,0.001620746\nSRI-1052970-001.txt,COc1ccc(OC)c(c1)S(=O)(=O)NC(Cc1c[nH]c2ccccc12)C(O)=O,1,0.984762719,0.964398875,0.938552458,0.904019367,0.85980277,0.806899498,0.746448788,0.681868347,0.616362277,0.553205881,0.494535227,0.44398163,0.399978639,0.362526256,0.33005803,0.301790737,0.277012354,0.254227634,0.23258215,0.21171989,0.191498451,0.172060237,0.153334045,0.136245505,0.120794617,0.107622201,0.096941863,0.0886112,0.082202998,0.078002065,0.075210937,0.074328029,0.074078821,0.07501157,0.07689843,0.07911282,0.082060593,0.085321656,0.08893873,0.092997259,0.096984585,0.101192638,0.105443412,0.110363487,0.114906191,0.119456015,0.124005839,0.128406138,0.133190929,0.137164014,0.141251024,0.1449393,0.148570615,0.151824558,0.154295276,0.156837196,0.158959023,0.161750151,0.165146499,0.168485884,0.17152622,0.174132223,0.176133006,0.176560219,0.175399623,0.172537292,0.170023853,0.169155185,0.170714515,0.173626687,0.174730321,0.171462138,0.164427356,0.15443056,0.144184556,0.135618926,0.128356296,0.122944925,0.118893517,0.116244793,0.114037524,0.112691801,0.112563637,0.111979779,0.112264588,0.112001139,0.111794653,0.111495603,0.110577094,0.109309694,0.108206059,0.106048631,0.103684716,0.100793905,0.097967176,0.094471145,0.090348535,0.085791591,0.080864395,0.075289259,0.069692762,0.063548008,0.057445975,0.050838406,0.04429492,0.038264089,0.032866959,0.027391506,0.022692157,0.018469864,0.014788707,0.012189825,0.009541101,0.007818007,0.006308519,0.004955677,0.004037168,0.002890811,0.002905052,0.00220015,0.002100466,0.001865499,0.001310121,0.001324362,0.001338602,0.00125316,0.001124996,0.000811706,0.00095411,0.001146356,0.000911389,0.00061946,0.000277689,0.000761864,0.000740503,0.001046673,0.000783225,0.000341771,0.000825946,0.000398733,0.000348891,0.000341771,0.000598099,0.000555378,0.0006337,0.000605219,0.000541137,0.000477055,0.000405853,0.000334651,0.000291929,0.000242088,0.000227847,0.000234967,0.000242088,0.000242088,0.000249208,0.000256328,0.000263448,0.000270569,0.000270569,0.000277689,0.000284809,0.000277689,0.000227847,0.000106803,7.83E-05,0.000270569,0.000462815,0.000291929,0.00030617,0.000363131,0.000163765,0.000498416,0.000469935,0.000548257,0.000234967,0.000206487,0,0.000334651\nSRI-0000340.txt,CC(C(=O)NC1=CC=CC=C1)[C@]1(O)CCC2C3CCC4CC(O)CCC4(C)C3CCC12C,0.341311455,0.363518598,0.389426932,0.419036457,0.451113441,0.484424156,0.518968602,0.555980507,0.594226143,0.632471778,0.670717414,0.70772932,0.745974955,0.781753131,0.817531306,0.849608291,0.880451545,0.908087101,0.932021467,0.953364999,0.970883968,0.985318611,0.993831349,1,0.999136389,0.99469496,0.984331627,0.970390476,0.950650793,0.927580038,0.899821109,0.868237616,0.832706187,0.794830671,0.753155265,0.70832151,0.6607242,0.611819135,0.56282771,0.513392141,0.465671458,0.420331873,0.376719511,0.33726482,0.301622355,0.268977855,0.240046882,0.21444698,0.192067115,0.172241071,0.155277281,0.141212757,0.129800753,0.120202332,0.111862316,0.104200851,0.096749121,0.089778545,0.083165752,0.077947073,0.074110172,0.070668065,0.068163593,0.064647462,0.060008636,0.054555549,0.049373882,0.045142187,0.041737092,0.039417679,0.03781383,0.037073592,0.035790513,0.034828203,0.033347727,0.032706187,0.032002961,0.031299735,0.030830917,0.029609524,0.028597866,0.027869965,0.02770958,0.025636913,0.024896675,0.024205786,0.023268151,0.022219481,0.021405219,0.020344211,0.019517611,0.018999445,0.017407933,0.016902104,0.01618654,0.014582691,0.0139905,0.013200913,0.011831472,0.010733453,0.009351675,0.008463389,0.007821849,0.006612794,0.005514774,0.004305718,0.003651841,0.002849917,0.003096663,0.002035655,0.001727222,0.001246067,0.00141879,0.000875948,0.000727901,0.000801925,0.00032077,0.000851274,0.000838937,0.001036333,0.001073345,0.000555179,0.00059219,0.000740238,0.00064154,0.000567516,0.000197397,0.000493492,0.000752575,0.000826599,0.000666214,0.000801925,0.000900623,0,0.00045648,0.000505829,0.000567516,0.000752575,0.000333107,0.000875948,0.000752575,0.000530504,0.000555179,0.000530504,0.000370119,0.00091296,0.001048671,0.000604528,0.000407131,0.000345444,0.000333107,0.000308433,0.000271421,0.000234409,0.000222071,0.000234409,0.000222071,0.000209734,0.000209734,0.000259083,0.000283758,0.00032077,0.000345444,0.000407131,0.000481155,0.000678552,0.000814262,0.000690889,0.000283758,0.000505829,0.00059219,0.000542841,0.000616865,0.000394794,1.23E-05,0.000419468,0.000468817,0.000801925,0.000542841,0.000740238,0.000567516\nSRI-1053069-001.txt,OC(=O)CCNC(=O)N1CCN(CC1)C(=O)CCc1c[nH]c2ccccc12,0.999515695,1,0.992506022,0.974841645,0.946675503,0.904642953,0.847214611,0.775894371,0.692237105,0.601391739,0.510699311,0.426404802,0.351184635,0.286874068,0.234365242,0.192562099,0.160011725,0.135082778,0.116092936,0.101538305,0.090577725,0.082242586,0.075819176,0.07089966,0.067331099,0.064761735,0.063000395,0.062029237,0.061651989,0.061883945,0.06271491,0.064002141,0.065809362,0.067968342,0.070382218,0.073469024,0.07682602,0.080443011,0.084256274,0.088454431,0.092831016,0.097342697,0.102009865,0.106791736,0.111752036,0.116508418,0.121354014,0.12615118,0.130933051,0.13562316,0.140017588,0.144180059,0.148133515,0.151620509,0.154533984,0.156789825,0.158408422,0.159746632,0.161319348,0.163279508,0.165466526,0.167452175,0.168532939,0.168270395,0.166715522,0.163118922,0.158148427,0.15270892,0.14834508,0.145898067,0.144845341,0.142696558,0.137369206,0.127647426,0.114910212,0.101010667,0.087406803,0.07518958,0.064274881,0.054864076,0.046567172,0.03923123,0.032937818,0.027291845,0.022509973,0.01835005,0.014832469,0.012028599,0.009617272,0.007771816,0.006194002,0.005087748,0.004213451,0.003326409,0.002740145,0.00228133,0.001988198,0.001638989,0.001440169,0.001333112,0.00116488,0.001111352,0.001052725,0.000830965,0.000838612,0.000790181,0.000721359,0.000759594,0.000695869,0.000774888,0.00069332,0.000481756,0.00064489,0.00064489,0.000565872,0.000568421,0.000576068,0.000502148,0.000453717,0.000512343,0.000530186,0.000484305,0.00042058,0.000469011,0.000502148,0.000476658,0.000374699,0.000323719,0.000364503,0.000384895,0.000389993,0.000412933,0.000379797,0.000288034,0.000257446,0.000356856,0.000318622,0.000361954,0.000234505,0.000186075,0.000168232,0.000193722,0.000226859,0.000349209,0.000270191,0.000211565,0.000214114,0.000196271,0.000183526,0.000168232,0.000158036,0.00014784,0.000140193,0.000142742,0.000140193,0.000137644,0.000137644,0.000140193,0.000137644,0.000137644,0.000132547,0.000129998,0.0001249,0.000114704,0.000101959,8.41E-05,5.86E-05,0.000142742,8.16E-05,5.86E-05,0,7.65E-05,0.000201369,0.000188624,0.000191173,0.000145291,0.0001249,0.000165683,0.000119802,9.18E-05,0.000180977\nSRI-1053111-001.txt,CC(C)[C@H](NC(=O)CCCCCn1nnc2ccccc2c1=O)C(O)=O,0.992596803,0.994756069,0.997620401,1,0.9998678,0.996342468,0.987308806,0.972282079,0.951614822,0.925703634,0.896311181,0.865067929,0.829858678,0.788303831,0.738816987,0.68135408,0.619572642,0.556953937,0.498213097,0.445994122,0.402235942,0.366938558,0.338603704,0.316350048,0.299472522,0.286076262,0.274663,0.264439538,0.254625896,0.245178007,0.236250105,0.227890662,0.220751865,0.214357795,0.208514557,0.202860807,0.196748763,0.190002159,0.182938276,0.175971339,0.169969462,0.165324837,0.162645585,0.162152039,0.163716405,0.166968523,0.171833481,0.178346531,0.185710068,0.193968157,0.202464207,0.211630069,0.221157278,0.230719741,0.240335083,0.249611112,0.259222047,0.26870519,0.277879866,0.286569808,0.294730951,0.302292788,0.309118711,0.314838562,0.319390646,0.322990891,0.325361677,0.32698333,0.327423996,0.32671893,0.325167784,0.322228538,0.318240507,0.313758929,0.308431271,0.302927347,0.297551216,0.292734732,0.288570434,0.285300689,0.28239229,0.279025598,0.27516536,0.269683469,0.262284679,0.253568297,0.243701775,0.233213913,0.223065364,0.213718828,0.205540059,0.199273782,0.194845084,0.192302438,0.190680786,0.188477453,0.184251462,0.176539799,0.164910611,0.150245231,0.133543972,0.115877653,0.098484548,0.082845295,0.068761595,0.056766654,0.046618105,0.038267476,0.031494432,0.025756955,0.02154859,0.018080545,0.014894526,0.012479674,0.010739042,0.008989596,0.007614716,0.00665847,0.005794764,0.004543271,0.004036505,0.003538552,0.002921619,0.002525019,0.002203332,0.001802326,0.001586399,0.001308779,0.001225053,0.001260306,0.000973873,0.000775573,0.00081964,0.000810826,0.000722693,0.000550833,0.00055524,0.00056846,0.000784386,0.000546426,0.000312873,0.00034372,8.37E-05,0.00031728,0.000286433,0.00025118,0.00027762,0.00027762,0.000255587,0.000215927,0.00018508,0.000176267,0.000180673,0.00017186,0.00015864,0.000141013,0.0001322,0.000127793,0.00011898,0.00010576,9.25E-05,8.81E-05,9.25E-05,7.93E-05,7.05E-05,3.97E-05,0,3.53E-05,0.00023796,0.00048914,0.000387786,0.000110167,0.000127793,0.0001322,0.000189487,0.000167453,0.000312873,0.000114573,0.00023796,0.000123387,0.0002644\nSRI-0000630.txt,CC(O)C(NC(=O)C1=CC=CC=C1)C(O)=O,0.902929507,0.925974238,0.947171042,0.964563291,0.979129301,0.990108158,0.996738953,0.999782597,1,0.996195445,0.987716724,0.977172672,0.961519648,0.943149084,0.922060982,0.898146638,0.87249307,0.844121963,0.813685526,0.780096744,0.74495353,0.708299364,0.669905973,0.631023425,0.591140823,0.551182129,0.511179955,0.471493016,0.432708299,0.395304093,0.359465188,0.326343823,0.295146475,0.266036198,0.239295614,0.215696505,0.194021414,0.175531279,0.158726018,0.144583945,0.131757161,0.121484863,0.112788739,0.105494864,0.099092342,0.093787706,0.08991793,0.085841622,0.082558835,0.079721724,0.076493288,0.073493125,0.070308169,0.067112343,0.06341649,0.0599163,0.05642698,0.051948475,0.047828686,0.043795858,0.039784771,0.035230176,0.030936464,0.027077559,0.022740366,0.018272732,0.014566009,0.011587586,0.008783086,0.006782977,0.004924181,0.004435024,0.003228436,0.002630578,0.001815316,0.002271863,0.001978368,0.001630523,0.001630523,0.001217457,0.001032665,0.000782651,0.001228328,0.001032665,0.0007283,0.00069569,0.000902223,0.001032665,0.000923963,0.00071743,0.000923963,0.000619599,3.26E-05,0.000500027,0.000760911,0.000956574,0.00069569,0.000336975,0.000771781,0.000815262,0.000500027,0.000304364,0.000434806,0.000869612,0.000543508,0.000228273,0.000380455,0.001021795,0.000532638,0.000467417,0.000217403,0.000771781,0.000597859,0.000532638,0.00071743,0.000489157,0.000304364,0.000391326,0.000402196,0.000108702,0.000152182,0.000119572,0.000217403,0.00067395,0.000478287,0.000793521,0.00070656,0.000641339,0.000434806,0.000510897,0.000163052,0.000793521,0.000641339,0.00070656,0.000489157,0.000380455,0.000402196,0.000489157,0.000336975,0.001217457,0.000336975,0.000402196,0.00069569,0.000293494,0.000293494,0.000260884,0.000163052,4.35E-05,2.17E-05,0.000130442,0.000228273,0.000282624,0.000326105,0.000326105,0.000326105,0.000326105,0.000315235,0.000271754,0.000239143,0.000206533,0.000173922,0.000108702,7.61E-05,2.17E-05,0,0.000152182,0.000206533,0.000413066,0.000369585,0.000336975,0.00070656,0.000282624,0.000304364,8.7E-05,2.17E-05,0.000641339,0.000173922,0.000423936,0.000141312,0.000250014,0.000586988\nSRI-1053205-001.txt,OC(=O)C(Cc1c[nH]c2ccccc12)N1C(=O)c2ccccc2C1=O,0.99590005,1,0.997356403,0.983900968,0.957306697,0.913806068,0.848808403,0.76877231,0.681897691,0.596954323,0.521714697,0.459091521,0.407090223,0.36423862,0.328383844,0.298401969,0.273675629,0.253904055,0.238944777,0.22805379,0.21985389,0.211923098,0.200588873,0.183793325,0.162327949,0.13929541,0.117750884,0.099673112,0.085932739,0.076228996,0.069955597,0.066300468,0.064605083,0.064337557,0.065040406,0.066457184,0.068391601,0.070701186,0.073176986,0.075899733,0.078909002,0.081948347,0.085209311,0.088400624,0.091702746,0.095020698,0.098332318,0.101564788,0.104692781,0.107700466,0.110605257,0.113384992,0.115954188,0.118278021,0.120283672,0.121890409,0.123228038,0.124567249,0.126126497,0.127837712,0.129607497,0.131030607,0.131921832,0.132141868,0.131396278,0.129430202,0.126650467,0.123954631,0.122208591,0.121797013,0.121686203,0.120364405,0.116636458,0.110163602,0.102172657,0.093841368,0.086078374,0.079086297,0.073107335,0.067790064,0.063151896,0.059189666,0.055586776,0.052387548,0.049530247,0.046620707,0.043874215,0.04106757,0.038245095,0.03521683,0.032253469,0.02929169,0.02635049,0.023543845,0.020806851,0.018364294,0.016130692,0.014033227,0.012201705,0.010672534,0.009414055,0.008191985,0.007246939,0.006434864,0.005646534,0.005101984,0.004639751,0.00431682,0.003966979,0.003693121,0.003430344,0.003286292,0.003164402,0.003028264,0.00289371,0.002824058,0.002754407,0.002616686,0.002464719,0.002439391,0.002393484,0.002295339,0.002187695,0.002124376,0.002061056,0.002018315,0.001932834,0.001831522,0.001717547,0.001709632,0.001684304,0.001529171,0.001491179,0.001432608,0.001374037,0.001340795,0.001381952,0.001144503,0.001136588,0.001114427,0.001071686,0.000954544,0.000929216,0.000946629,0.000918136,0.000932382,0.000918136,0.00088331,0.000832654,0.000785164,0.000731342,0.000680687,0.000636363,0.000606286,0.000582541,0.000568294,0.00055563,0.0005398,0.000519221,0.000498643,0.000471732,0.000440072,0.000398914,0.000362505,0.000327679,0.000318181,0.000319764,0.00029602,0.000292854,0.000227951,0.000221619,0.000259611,0.000239032,0.000256445,0.000161465,8.86E-05,0.000139303,0.000112392,2.53E-05,5.38E-05,0\nSRI-1053163-001.txt,CC(C)C[C@H](NC(=O)CCCn1nnc2ccccc2c1=O)C(O)=O,1,0.988888889,0.987037037,0.974074074,0.95,0.916666667,0.888888889,0.846296296,0.812962963,0.764814815,0.718518519,0.677777778,0.635185185,0.594444444,0.561111111,0.522222222,0.485185185,0.440740741,0.405555556,0.37037037,0.327777778,0.3,0.274074074,0.240740741,0.225925926,0.214814815,0.198148148,0.187037037,0.174074074,0.167222222,0.162407407,0.156296296,0.157592593,0.152962963,0.150185185,0.145185185,0.143333333,0.148333333,0.143333333,0.148703704,0.146851852,0.139074074,0.146666667,0.140925926,0.147592593,0.143518519,0.151481481,0.146296296,0.147407407,0.158888889,0.159814815,0.168333333,0.176111111,0.178333333,0.188148148,0.195925926,0.202777778,0.20462963,0.216296296,0.221851852,0.22,0.231296296,0.232777778,0.230555556,0.235,0.245555556,0.237777778,0.23,0.227222222,0.232962963,0.231851852,0.239814815,0.228888889,0.208888889,0.21037037,0.196666667,0.196296296,0.190555556,0.181851852,0.177222222,0.168703704,0.170925926,0.167777778,0.167407407,0.163703704,0.16037037,0.155740741,0.148148148,0.147407407,0.141851852,0.136851852,0.130555556,0.128888889,0.122962963,0.121111111,0.121481481,0.12462963,0.113888889,0.119074074,0.111851852,0.105555556,0.100555556,0.08962963,0.078518519,0.068703704,0.058703704,0.04537037,0.042777778,0.039074074,0.038333333,0.028888889,0.025555556,0.018888889,0.021296296,0.021481481,0.017592593,0.011111111,0.004259259,0.012222222,0.017962963,0.012222222,0.009259259,0.00962963,0.007592593,0,0.009259259,0.013703704,0.008333333,0.013148148,0.003703704,0.013518519,0.00462963,0.015740741,0.015925926,0.011666667,0.017407407,0.01537037,0.007592593,0.003703704,0.007777778,0.007962963,0.007962963,0.008703704,0.001851852,0.007962963,0.008333333,0.007037037,0.004814815,0.002037037,0.001666667,0.001111111,0.000555556,0.000555556,0.000555556,0.000740741,0.001111111,0.001666667,0.001851852,0.002037037,0.002037037,0.002407407,0.002592593,0.002592593,0.003703704,0.005185185,0.006111111,0.011111111,0.012592593,0.011296296,0.013888889,0.015925926,0,0.008703704,0.01537037,0.002407407,0,0.001481481,0.00537037,0.002592593,0.010185185,0.010740741\nSRI-0000208.txt,OC(=O)C1=CC2=C3C=CC=CC3=NC=C2C2=CC=CC=C12,0.638155973,0.641076564,0.640286287,0.63612874,0.628638283,0.6168872,0.601562688,0.582355508,0.560193377,0.53689737,0.513979322,0.493844425,0.477042438,0.463023602,0.451616118,0.441926628,0.434092572,0.427632913,0.422994327,0.419798857,0.418252662,0.419283459,0.421551212,0.426224157,0.433439734,0.443129224,0.455096775,0.470459083,0.488559874,0.509622488,0.533667541,0.560980219,0.591299388,0.625130138,0.661039662,0.698704976,0.735930483,0.770970701,0.802217587,0.828619729,0.850898683,0.870463206,0.888412813,0.905984462,0.923154101,0.941292688,0.960104729,0.977916897,0.992399592,1,0.99753296,0.983455712,0.959304143,0.927878586,0.893223198,0.858416627,0.824816089,0.792304759,0.760174823,0.727264918,0.691716174,0.653762236,0.611234998,0.564570828,0.514742112,0.462917086,0.411002725,0.361833719,0.317368582,0.277383975,0.242261293,0.211437034,0.184309899,0.161347183,0.141937279,0.126217629,0.11359724,0.10418263,0.097712662,0.093510447,0.090201589,0.086624725,0.081852136,0.075602071,0.068455214,0.061579799,0.055357223,0.050447194,0.046870329,0.044764068,0.043726399,0.04393943,0.044643808,0.045983844,0.047938922,0.050120775,0.052385092,0.055013624,0.057525332,0.060160736,0.063074454,0.065970993,0.068647629,0.071496064,0.074505991,0.077546841,0.080622051,0.083704134,0.087026735,0.090339029,0.093695991,0.096915512,0.099853283,0.103038445,0.106072424,0.109017067,0.111515031,0.113899607,0.11608146,0.118191158,0.120118748,0.12181269,0.123537557,0.125344887,0.127289657,0.128976728,0.130866522,0.132780368,0.13476637,0.136748936,0.138525342,0.140422008,0.142487038,0.144565811,0.146489965,0.148548123,0.150248937,0.151939444,0.153427227,0.154784443,0.156035143,0.157330511,0.158107045,0.158969478,0.15972196,0.160354182,0.160824912,0.161086047,0.161192563,0.161395287,0.161336875,0.161096355,0.160642805,0.159921247,0.158972914,0.157821858,0.156444026,0.154726031,0.152485766,0.149647639,0.146008927,0.141937279,0.136783296,0.130014397,0.121606531,0.112563007,0.103990214,0.095719788,0.08733941,0.079068984,0.070911946,0.062603724,0.05425427,0.046231235,0.038651443,0.031411814,0.024453935,0.017441081,0.011160093,0.005590354,0\nSRI-0000546.txt,CC(=O)N1C=CN=C1\\C=C\\C1=CC=C(O1)[N+]([O-])=O,0.058032221,0.05115093,0.044701406,0.037968535,0.030857868,0.025514748,0.019335078,0.014180857,0.009606822,0.00563996,0.00267156,0.001119896,0.000229376,0,0.001565156,0.003197776,0.00578838,0.009094098,0.012049006,0.01588094,0.020360526,0.025258386,0.030237202,0.034946164,0.039344793,0.04319022,0.047305502,0.050354859,0.053566128,0.056440079,0.059651348,0.062660226,0.065965944,0.069662952,0.072955177,0.075667215,0.079175325,0.083492997,0.086717759,0.090050463,0.094813396,0.100642254,0.107361632,0.115281863,0.124510889,0.134967752,0.146706425,0.159902313,0.174514936,0.189937124,0.20560218,0.222292684,0.239603854,0.257211863,0.274738916,0.292657258,0.310157325,0.327441509,0.344199476,0.360687589,0.376231211,0.390263648,0.403095232,0.414496586,0.42346925,0.431578379,0.437137383,0.440807405,0.442831314,0.443263081,0.441940794,0.439525596,0.436044472,0.429972745,0.421728688,0.411096419,0.397887039,0.382599779,0.366071188,0.347356775,0.327981218,0.307917532,0.288245136,0.269287854,0.251369512,0.234813935,0.219810022,0.205629166,0.193161886,0.181962922,0.171640986,0.162978655,0.154963974,0.147745365,0.142159376,0.137571849,0.133578001,0.130596109,0.128599185,0.128113447,0.127546752,0.127452303,0.129489705,0.132660496,0.135372534,0.139757671,0.144709502,0.151078069,0.158607011,0.166540735,0.176295976,0.18630758,0.197466066,0.210108751,0.223250668,0.237741857,0.252421945,0.26818145,0.284642578,0.302533934,0.320492754,0.339827833,0.358987506,0.378808322,0.399951426,0.421418356,0.443344038,0.466281674,0.487950994,0.509134576,0.530345144,0.551164422,0.573076612,0.59567693,0.617278787,0.639420352,0.661251585,0.682866935,0.704293386,0.725706344,0.746201797,0.766737728,0.787138732,0.806622231,0.825660469,0.843093073,0.855277006,0.862320209,0.871157946,0.888563564,0.908951075,0.92762501,0.941212187,0.950090401,0.955892274,0.960493294,0.965107807,0.96972232,0.974066978,0.978708476,0.98278328,0.988099414,0.993523491,0.99792212,1,0.998286424,0.993739374,0.987546213,0.979612489,0.970653318,0.960331381,0.948052999,0.934249939,0.920703241,0.905645357,0.889454084,0.871265888,0.85257846,0.832406833,0.812181234,0.790403972\nSRI-1053330-001.txt,CC(C)[C@H](NC(=O)N1CC(=O)Nc2ccccc12)C(O)=O,0.704601015,0.712593243,0.726592699,0.746494912,0.770732778,0.797739192,0.827305209,0.857759251,0.888526714,0.917204705,0.943532042,0.966150567,0.983963309,0.995350927,1,0.995768821,0.982866337,0.962232809,0.933607054,0.897929334,0.856087674,0.808604442,0.755270691,0.697914708,0.637267808,0.57625525,0.51683069,0.462582795,0.415381642,0.377118201,0.347808145,0.327059696,0.313457239,0.305313525,0.301411438,0.300711465,0.301562924,0.30335987,0.30598738,0.308583548,0.310918532,0.312590108,0.313744541,0.314031844,0.31357216,0.311994609,0.309706638,0.306567208,0.302513634,0.297441443,0.291815541,0.285615036,0.278427255,0.270842475,0.262912932,0.254596837,0.246155373,0.237604212,0.228697842,0.220251154,0.211658204,0.203138386,0.19512004,0.186918866,0.179417664,0.171879897,0.164535406,0.157175244,0.150086713,0.143055643,0.135732046,0.128450239,0.121241564,0.114132138,0.106944357,0.099615537,0.092161349,0.084299714,0.076417184,0.068764496,0.060965545,0.053171817,0.046271339,0.03947011,0.03334796,0.027915335,0.023041643,0.018930609,0.015388955,0.01268309,0.01021229,0.00823774,0.00667586,0.00555277,0.004528929,0.003802838,0.003134207,0.002606615,0.002167826,0.001995445,0.00166113,0.001311143,0.001248459,0.000997722,0.000726091,0.00080967,0.000877578,0.000783552,0.000632065,0.000778328,0.000642512,0.000491026,0.000313421,0.000282079,0.000517144,0.000349986,0.000684302,0.000595499,0.000224618,0.000491026,0.000574605,0.000397,0.000480578,0.000668631,0.000360434,0.00025596,0.000626841,0.000397,0.000266408,0.000370881,0.000245513,0.000370881,0.000208947,0.000407447,0.000470131,0.00029775,0.000224618,0.000365657,0.000334315,0.000397,0.000334315,0.000365657,0.000407447,0.000125368,0.000188052,0.000172381,0.000151487,9.92E-05,4.18E-05,5.22E-05,8.36E-05,0.000104474,0.000135816,0.000151487,0.00015671,0.000146263,0.000120145,9.92E-05,8.36E-05,7.84E-05,7.31E-05,6.79E-05,6.79E-05,7.31E-05,9.92E-05,0.000167158,0.000130592,0,0.000135816,0.000329092,0.000245513,0.000391776,0.000146263,0.000240289,0.000125368,0.000167158,0.000177605,6.79E-05,0.000120145,0.00025596,0.000344763\nSRI-1053248-001.txt,CC(C)[C@H](NC(=O)Cc1ccc2OC(C)(C)CCc2c1)C(O)=O,0.978009638,0.966897487,0.957656857,0.951808356,0.947831376,0.947129556,0.950521686,0.958826557,0.969353858,0.982805409,0.993098769,1,0.99871333,0.989121789,0.968184158,0.936017405,0.892972442,0.837411688,0.774481823,0.704065878,0.630842652,0.557853366,0.486969541,0.419243906,0.357366771,0.301572077,0.252327703,0.20893183,0.172086277,0.141791045,0.117742011,0.098371777,0.08389089,0.073106256,0.065982782,0.061654892,0.059268704,0.058601974,0.059058157,0.061163618,0.064368596,0.06836897,0.07336359,0.079457727,0.085680532,0.092967763,0.101214149,0.110443082,0.119753895,0.130515136,0.14161559,0.153008469,0.165103168,0.176811865,0.188929958,0.201422355,0.213645721,0.226313573,0.239694942,0.252117157,0.263685491,0.27238806,0.277476255,0.279184017,0.277780377,0.275288916,0.271522482,0.268960838,0.265954709,0.261112151,0.251696065,0.235320264,0.209200861,0.177677444,0.14290226,0.108945866,0.079399242,0.056941,0.039360408,0.027558134,0.01938193,0.013580218,0.009977542,0.007146868,0.005977167,0.004865952,0.003462312,0.002912553,0.002912553,0.002760492,0.00210546,0.002046975,0.001742853,0.001649277,0.001193094,0.000994245,0.001216488,0.001473822,0.00046788,0.000795396,0.000772002,0.000959154,0.001742853,0.001228185,0.000877275,0.000596547,0.001438731,0.00105273,0.000538062,0.000830487,0.001193094,0.001590792,0.00128667,0.001181397,0.001239882,0.000666729,0.000877275,0.000924063,0.001204791,0.000678426,0.000959154,0.001298367,0.000924063,0.000549759,0.001415337,0.001532307,0.001111215,0.000853881,0.00152061,0.001321761,0.001473822,0.00128667,0.001462125,0.001193094,0.0011697,0.000900669,0.001193094,0.000853881,0.001181397,0.001181397,0.000561456,0.001064427,0.000807093,0.001122912,0.000959154,0.000959154,0.000853881,0.000631638,0.000386001,0.000187152,0.000140364,0.000128667,0.00011697,0.00011697,0.00011697,0.000175455,0.000245637,0.000304122,0.000362607,0.000397698,0.00046788,0.000502971,0.000538062,0.000549759,0.000514668,0.000561456,0.000655032,0.000690123,0.000736911,0.00035091,9.36E-05,0.000526365,0.000397698,0.000795396,0.001122912,0.000608244,0.000970851,0.000514668,0,0.000736911,0.000912366\nSRI-0000584.txt,OCCN1CCN(CC1)C1=CC=CC=C1,0.531302818,0.545100204,0.562415922,0.584526232,0.611879549,0.641336967,0.672795005,0.704804939,0.737608223,0.771963713,0.805767307,0.838018695,0.869545721,0.897243972,0.925735573,0.949915491,0.968955883,0.984305474,0.995308889,0.999241144,1,0.995274396,0.983857059,0.968300507,0.947466455,0.92142389,0.89124211,0.856610672,0.818598876,0.77662033,0.733434514,0.686971819,0.638853437,0.592080301,0.543927426,0.496016005,0.450829568,0.408747542,0.365941154,0.326239178,0.291055845,0.259183885,0.231244179,0.206822807,0.18633369,0.168879997,0.155531027,0.143768756,0.135766272,0.129143527,0.123521093,0.120347694,0.118209099,0.117139802,0.1166224,0.116656894,0.116656894,0.116242972,0.116208478,0.115070194,0.114897727,0.113483495,0.112621158,0.110517057,0.107550619,0.10506709,0.100651926,0.097409541,0.095650374,0.090441861,0.084957401,0.080887172,0.076920424,0.072298299,0.068331551,0.06284709,0.057638577,0.053533855,0.04939464,0.045427891,0.040598807,0.037218447,0.033355179,0.029940326,0.027801732,0.023352075,0.021178987,0.018074575,0.017039771,0.015073644,0.013038529,0.010934428,0.009968611,0.008036977,0.007830016,0.005725915,0.00517402,0.004829085,0.004242696,0.004242696,0.004242696,0.003173399,0.004070229,0.003311372,0.001414232,0.002242075,0.001345245,0.002862957,0.001345245,0.000620882,0.001552206,0.001310752,0.002414542,0.002242075,0.001724673,0.002621503,0.002069608,0.001931634,0.00079335,0.001828154,0.001655686,0.002276569,0.001379739,0.002000621,0.003000931,0.002311062,0.00169018,0.002380049,0.001172778,0.002207582,0.001621193,0.002380049,0.002104101,0.002104101,0.000413922,0.000689869,0.001966127,0.001034804,0.000517402,0.001241765,0.001448725,0.00079335,0.001310752,0.000448415,0.001034804,0.001828154,0.00169018,0.001448725,0.001310752,0.00100031,0.000655376,0.000689869,0.000758856,0.000758856,0.000724363,0.000724363,0.000689869,0.000655376,0.000620882,0.000620882,0.000551895,0.000586389,0.000517402,0.000620882,0.00079335,0.000586389,0.000275948,0.001310752,0.00169018,0.000551895,0.002552516,0.001655686,0,0.001552206,0.00189714,0.001828154,0.001552206,0.001276258,0.001034804,0.000758856,0.000620882\nSRI-1053320-001.txt,CC(C)c1ccc(cc1)S(=O)(=O)N1CCCC1C(O)=O,0.664782502,0.702875399,0.741582698,0.782133202,0.821454903,0.8595478,0.895797493,0.928360777,0.955824527,0.977697223,0.992934382,1,0.999569919,0.990476776,0.973765053,0.949004669,0.916625707,0.877488326,0.832637012,0.782256083,0.728618825,0.67184812,0.614340133,0.556094864,0.499385598,0.444642418,0.394322929,0.347382649,0.305050381,0.267326124,0.234056279,0.205081101,0.180333006,0.159596953,0.14316171,0.129755468,0.118745392,0.10942492,0.100374785,0.091975915,0.085377243,0.080836815,0.078440649,0.076880069,0.074533055,0.070557877,0.065538216,0.060813468,0.056721553,0.053225608,0.049729663,0.045736053,0.041920619,0.039327845,0.037115999,0.0345478,0.030388302,0.025221185,0.019753011,0.015439912,0.012245023,0.009596953,0.007354387,0.005836815,0.004823052,0.003858442,0.00305972,0.002641927,0.002721799,0.002199558,0.002193414,0.001824773,0.001640452,0.001480708,0.001216515,0.001265667,0.001026051,0.001112067,0.001118211,0.000638978,0.000608258,0.000552961,0.000755714,0.00068813,0.000571393,0.000552961,0.000516097,0.000620546,0.000473089,0.000706562,0.000448513,0.000380929,0.000380929,0.000411649,0.000663554,0.000473089,0.000430081,0.000681986,0.000190464,0.000399361,0.000528385,0.000497665,0.00065741,0.000313345,0.000417793,0.000755714,0.000645122,0.000559105,0.000516097,0.00065741,0.000583681,0.000509953,0.000700418,0.000399361,0.000215041,0.000448513,0.000258049,0.000491521,0.000430081,0.000362497,0.000608258,0.000497665,0.000417793,0.000706562,0.000589826,0.000755714,0.000559105,0.00074957,0.000215041,0.000178176,0.000319489,0.000509953,0.000516097,7.99E-05,0.000368641,0.000608258,0.000405505,0.000430081,0.000374785,0.000559105,0.000399361,0.000362497,0.000681986,0.000350209,0.000288769,0.000276481,0.000294913,0.000368641,0.000423937,0.000399361,0.000356353,0.000313345,0.000264193,0.000227329,0.000208897,0.00018432,0.000178176,0.000172032,0.000172032,0.000178176,0.00018432,0.00018432,0.000190464,0.00018432,0.000190464,0.000251905,0.000264193,0.000430081,0.000466945,0.000411649,5.53E-05,0.000264193,0.000215041,0.000337921,0.000331777,0.000172032,0.000288769,0.000104448,0.000129024,0,0.000460801\nSRI-1053258-001.txt,CC(O)[C@H](NS(=O)(=O)c1ccc(NC(C)=O)cc1)C(O)=O,0.171232477,0.152779601,0.141109798,0.134910215,0.133013872,0.134691407,0.138629965,0.144756612,0.152633729,0.162261316,0.173420565,0.186549093,0.201136347,0.217328199,0.234978776,0.25423395,0.275531341,0.298433329,0.322866979,0.349284495,0.377401427,0.406554053,0.437719721,0.470103424,0.503690575,0.538670809,0.574205359,0.611191341,0.648512829,0.685805143,0.723126632,0.759142561,0.794998031,0.828235088,0.860509387,0.890624772,0.917436144,0.940885155,0.961073914,0.977149067,0.989044973,0.997031494,1,0.998475632,0.990861086,0.976798973,0.956705031,0.931264861,0.902673844,0.869619127,0.835718349,0.800212974,0.762993596,0.726547343,0.69044389,0.655171911,0.620250026,0.584387262,0.546161364,0.504507461,0.459359911,0.411922162,0.362930871,0.314063571,0.26748647,0.222718189,0.181472729,0.14495354,0.113627412,0.08655347,0.064884104,0.048254635,0.035753359,0.026453985,0.019758435,0.015309323,0.011837556,0.009554651,0.007694776,0.006279813,0.005492101,0.004427231,0.004186542,0.003471766,0.003187315,0.002771578,0.002406897,0.002107858,0.002027628,0.001932811,0.001816113,0.001575423,0.001225329,0.001429551,0.001517074,0.001094044,0.00090441,0.00098464,0.000846061,0.001210742,0.000692895,0.000875235,0.001042989,0.000816886,0.00082418,0.000714775,0.000933584,0.000991933,0.00090441,0.000554316,0.000897116,0.000911703,0.001006521,0.001013814,0.000831473,0.000678307,0.000787712,0.000444911,0.000897116,0.000495967,0.000627252,0.000882529,0.001094044,0.000736656,0.001028401,0.000838767,0.000619958,0.000729363,0.000751244,0.000816886,0.000605371,0.000787712,0.000627252,0.000853354,0.000692895,0.000685601,0.000780418,0.00058349,0.000444911,0.00032092,0.000495967,0.000751244,0.000393856,0.000481379,0.000525141,0.000590784,0.000517848,0.000371975,0.000211515,8.02E-05,5.83E-05,4.38E-05,2.19E-05,0,0,5.83E-05,0.000116698,0.000167753,0.000196928,0.000218809,0.000247983,0.000262571,0.000284451,0.000262571,0.000247983,0.000284451,0.000510554,0.000459498,0.000437618,0.0003428,0.000284451,8.02E-05,0.000204222,0.000247983,0.000401149,0.000218809,0.000481379,0.000182341,0.000335507,0.000102111,0.000437618\nSRI-1052752-001.txt,CC(Oc1ccc2c(cc(=O)oc2c1)-c1ccccc1)C(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(O)=O,1,0.985069661,0.96566022,0.940278643,0.907858477,0.867973142,0.820622638,0.766873416,0.709711546,0.65154721,0.596155651,0.546160343,0.502051855,0.464896639,0.434268115,0.409014512,0.388474631,0.371624677,0.357248893,0.344707408,0.33380826,0.323890249,0.314313503,0.305078022,0.295821211,0.28658573,0.277798159,0.269351853,0.262055183,0.255775908,0.251096313,0.247886291,0.246150105,0.246009334,0.246566022,0.2481721,0.249995734,0.252335532,0.254472703,0.256931943,0.259244013,0.261982664,0.264913276,0.268398444,0.272054244,0.276057708,0.28018488,0.284017712,0.287799353,0.291421027,0.294750493,0.297785617,0.300711964,0.303382362,0.30530411,0.30659665,0.307298376,0.307944647,0.308925783,0.309644573,0.31040602,0.31111841,0.310862462,0.309491003,0.30702963,0.302855534,0.297401694,0.292240063,0.288656781,0.286990982,0.286581464,0.285237734,0.281010315,0.273267867,0.263578077,0.253700591,0.244855432,0.237437186,0.231842575,0.227316549,0.22402121,0.22176033,0.220651219,0.220318485,0.22084318,0.221875507,0.224072399,0.22692836,0.23025356,0.234075727,0.238358601,0.243008335,0.247679399,0.252126507,0.25679757,0.261278805,0.26527587,0.269095904,0.272749571,0.275957461,0.279065105,0.281908268,0.284350445,0.286357509,0.287976384,0.289049236,0.289448089,0.289209204,0.287865473,0.28565365,0.282654785,0.278809156,0.274108232,0.269031917,0.263036319,0.256712254,0.249863494,0.243091519,0.235984677,0.228368071,0.220747199,0.21290024,0.204677889,0.195932976,0.186821203,0.177321241,0.167275256,0.156934929,0.146530616,0.13635239,0.126246683,0.11627535,0.106237896,0.096140721,0.086510652,0.077285835,0.068692358,0.060708893,0.053401558,0.046610386,0.040559333,0.035099095,0.030274462,0.026083303,0.022333655,0.019381713,0.017530351,0.016585474,0.015429439,0.013309331,0.01087142,0.008680926,0.007198556,0.006309135,0.005752446,0.005319467,0.004914215,0.004502564,0.004082381,0.003649402,0.003199358,0.002676797,0.002113709,0.00156342,0.001083516,0.00081477,0.000740118,0.000659068,0.000486302,0.000452176,0.000437246,0.000364727,0.00031567,0.000319936,0.000273012,0.000151436,0.000142905,7.25E-05,0,6.4E-06,0.000104512\nSRI-1053046-001.txt,Cc1ccccc1Oc1ccc(cc1)S(=O)(=O)NCCCCCC(O)=O,0.625075438,0.60998793,0.598672299,0.594900422,0.598672299,0.602444176,0.613759807,0.628847314,0.655250453,0.681653591,0.708056729,0.742003621,0.772178636,0.811028968,0.845353048,0.877414001,0.910983705,0.939272782,0.963789982,0.984535305,0.996605311,1,0.999622812,0.993587809,0.977368739,0.95436029,0.922299336,0.881940253,0.835923355,0.784248642,0.727293301,0.67033796,0.615004526,0.562311406,0.512522631,0.465751358,0.426750151,0.392350634,0.362175619,0.334640917,0.310840374,0.289717864,0.271009354,0.253319252,0.240079964,0.225143331,0.212884731,0.198928787,0.187273687,0.175958057,0.170526554,0.167320459,0.163510863,0.156985516,0.15042245,0.142803259,0.134354255,0.127678033,0.121680748,0.118927278,0.118059747,0.115230839,0.112326494,0.107573929,0.102519614,0.098408268,0.093580266,0.090487326,0.089393482,0.087356669,0.086262824,0.084829511,0.08456548,0.084414605,0.08301901,0.082264635,0.080303259,0.079775196,0.079586602,0.078379602,0.075475256,0.072118286,0.070119191,0.066158721,0.062122812,0.06159475,0.057143935,0.052278214,0.048996681,0.04413096,0.04043452,0.037567894,0.032853048,0.028703983,0.025912794,0.022593543,0.019500604,0.014634882,0.012371756,0.010485818,0.008222692,0.005242909,0.002187689,0.002074532,0.002866626,0.002112251,0.003017502,0.003432408,0.00245172,0.001471032,0.002112251,0.001961376,0.001961376,0.00154647,0.002338564,0.000452625,0.001282438,0.001320157,0.00154647,0.002414001,0.001810501,0.000678938,0.000942969,0.001320157,0.00154647,0.000754375,0.001131563,0.000377188,3.77E-05,0.001810501,0.002564876,0.00214997,0.001659626,0.000452625,0,0.000829813,0.000565782,0.001735063,0.001961376,0.002338564,0.001471032,0.001131563,0.000490344,0.0006035,0.001169282,0.001207001,0.00154647,0.00154647,0.001433313,0.001207001,0.000867532,0.000641219,0.000565782,0.000565782,0.0006035,0.000641219,0.000641219,0.000641219,0.0006035,0.000452625,0.000377188,0.000377188,0.000528063,0.000792094,0.001093844,0.001056126,0.000716657,0.002300845,0.00214997,0.002112251,0.002564876,0.002225407,0.001244719,0.00305522,0.001357876,0.002074532,0.002036814,0.000414906,0.001056126,0.000565782,0.001621907\nSRI-1053187-001.txt,CCCCC(NS(=O)(=O)c1cccc(c1)C(F)(F)F)C(O)=O,1,0.996500437,0.970253718,0.947506562,0.909011374,0.874015748,0.819772528,0.76727909,0.706036745,0.641294838,0.580052493,0.529308836,0.475065617,0.426071741,0.382327209,0.338582677,0.30183727,0.268591426,0.247594051,0.216097988,0.193350831,0.184601925,0.184601925,0.168853893,0.165354331,0.169728784,0.166404199,0.162904637,0.168328959,0.165879265,0.174103237,0.179877515,0.17480315,0.182502187,0.187226597,0.183902012,0.190726159,0.197375328,0.19720035,0.194225722,0.201749781,0.199825022,0.19720035,0.204024497,0.214873141,0.211373578,0.209098863,0.209798775,0.207349081,0.202449694,0.209273841,0.21032371,0.218372703,0.214173228,0.209098863,0.209798775,0.210148731,0.216447944,0.220997375,0.222222222,0.234820647,0.237095363,0.241294838,0.246544182,0.254593176,0.25424322,0.25984252,0.263692038,0.267541557,0.26824147,0.268941382,0.262467192,0.268416448,0.258967629,0.258092738,0.253193351,0.245319335,0.22992126,0.222222222,0.216972878,0.214173228,0.191251094,0.173753281,0.171828521,0.157130359,0.144006999,0.125109361,0.123009624,0.115135608,0.09343832,0.089063867,0.085914261,0.077340332,0.075765529,0.074540682,0.065616798,0.071741032,0.067891514,0.056167979,0.044969379,0.052143482,0.036745407,0.037445319,0.031671041,0.020122485,0.019422572,0.014873141,0.004549431,0.008223972,0.011723535,0.008923885,0.008923885,0.012598425,0.014348206,0.01959755,0.009273841,0.009623797,0.020122485,0.015573053,0.019247594,0.008573928,0.012248469,0.012598425,0.009623797,0.009098863,0.0111986,0.018197725,0.020647419,0.014873141,0.006299213,0.015223097,0.014523185,0.0279965,0.017322835,0.010848644,0.016097988,0.016447944,0.0111986,0.011548556,0.006124234,0.007524059,0.004724409,0.010673666,0.010673666,0.009973753,0.0111986,0.012773403,0.011373578,0.008048994,0.004024497,0.001224847,0.001224847,0.001224847,0.000524934,0,0,0.000699913,0.001574803,0.001924759,0.002449694,0.002624672,0.003149606,0.002974628,0.003849519,0.005249344,0.005424322,0.007349081,0.011023622,0.010498688,0.012248469,0.003674541,0.008573928,0.001224847,0.011373578,0.007349081,0.00279965,0.007524059,0.006649169,0.002274716,0.003849519,0.007349081\nSRI-1053389-001.txt,CC(C)c1nc2nccc(-c3cccs3)n2n1,0.567270786,0.574634353,0.584759257,0.596725054,0.611452187,0.625258875,0.639065563,0.652872251,0.664746003,0.674502729,0.681221984,0.68214243,0.679381092,0.670176634,0.658026748,0.640630321,0.621024824,0.60086706,0.581077474,0.561103799,0.542142614,0.523917786,0.506153181,0.488940843,0.472188728,0.456357059,0.440617435,0.42404941,0.406376849,0.386311129,0.364036339,0.340252018,0.315804976,0.293097576,0.273639351,0.25844279,0.246900399,0.239177858,0.234980625,0.233231777,0.233830067,0.23488858,0.237401397,0.240052281,0.243752474,0.247020057,0.249753781,0.252432278,0.255000322,0.257144961,0.258746537,0.26013641,0.260633451,0.260974016,0.26133299,0.260891176,0.260679473,0.26065186,0.260872767,0.261010834,0.261876053,0.262722863,0.264416483,0.26531852,0.266450669,0.267371115,0.268190311,0.269064735,0.270261315,0.271632779,0.273261968,0.274688659,0.27764329,0.280782011,0.283663006,0.287897057,0.291634068,0.295656416,0.30000092,0.305026555,0.310521617,0.316992351,0.324365122,0.333247425,0.343556419,0.354969947,0.367303922,0.381147428,0.395589223,0.409837725,0.424721335,0.43899745,0.452730503,0.465837652,0.479156503,0.492990805,0.507671916,0.523457563,0.5406699,0.559511427,0.579936121,0.601566599,0.624844675,0.648840698,0.673435012,0.698820909,0.72413317,0.749675543,0.774803715,0.798238267,0.820080447,0.840514345,0.859282236,0.876522187,0.892427492,0.907274284,0.921476763,0.935531972,0.949660816,0.962390582,0.975055917,0.986331379,0.994578574,0.999134781,1,0.994615392,0.985364911,0.971420156,0.953020443,0.933414946,0.913165137,0.8901724,0.865522859,0.841278315,0.817945013,0.796277717,0.776165975,0.75652366,0.736927368,0.715011552,0.691153595,0.663346925,0.631453476,0.594120192,0.551080143,0.505692958,0.471940208,0.45123938,0.421260459,0.364588607,0.302182377,0.247489484,0.207744631,0.181916921,0.164787423,0.151422549,0.138766418,0.125861767,0.112616551,0.099021566,0.084901926,0.06860083,0.051066337,0.034074906,0.019798791,0.011616027,0.008256399,0.006682437,0.005412222,0.004362913,0.003074289,0.002393159,0.001831687,0.001076922,0.000708743,0.000975673,0.000395792,0.000395792,0.000138067,0,0.000349769\nSRI-0000023.txt,[O-][N+](=O)C1=CC=C(S1)\\C=N\\NC(=O)C1=CC=CO1,0.111013796,0.116203955,0.120745344,0.124916007,0.12834522,0.130569574,0.133906104,0.13626948,0.137706042,0.138401153,0.138818219,0.138679197,0.138725538,0.139559671,0.141413299,0.144888852,0.149152197,0.155130148,0.162127595,0.169542107,0.177929775,0.18678085,0.196373376,0.206290287,0.216253539,0.226587517,0.236226384,0.245355503,0.253886827,0.261491337,0.268308054,0.274795753,0.280537367,0.28655239,0.291705477,0.29807269,0.304949651,0.312776596,0.322169857,0.332235059,0.343875844,0.356438809,0.370758088,0.385930035,0.402302206,0.419420463,0.43678896,0.454106482,0.471391565,0.488342995,0.504502,0.519419073,0.533427868,0.545518159,0.556162619,0.565092473,0.572187235,0.577567391,0.580625878,0.582502676,0.582025367,0.579305167,0.574851826,0.568146325,0.559656708,0.548984443,0.535842219,0.521388553,0.504881993,0.486123276,0.465677756,0.443411047,0.419777287,0.395286223,0.369900785,0.343866576,0.317100184,0.29111695,0.264999328,0.239878031,0.215312823,0.192476123,0.170413313,0.149754626,0.130310066,0.113303027,0.097093048,0.082250119,0.069186674,0.057337356,0.046706798,0.037383048,0.029403178,0.022410365,0.016390708,0.01129323,0.007210614,0.003971399,0.001742411,0.000278044,0,0.001051934,0.002683127,0.005755516,0.009935447,0.014861464,0.020908927,0.028291001,0.03664623,0.046053394,0.056697854,0.06878351,0.081429889,0.095767703,0.111097209,0.127001339,0.144314227,0.162021011,0.180529489,0.200460627,0.221063705,0.242014338,0.2635674,0.285889718,0.308707882,0.332888463,0.356772462,0.380480368,0.404874115,0.428429096,0.451066531,0.474190544,0.498171859,0.521471966,0.545596938,0.569304843,0.592447392,0.616711385,0.639844666,0.662973312,0.685559773,0.708345498,0.730051485,0.751669424,0.772856395,0.793292646,0.808659224,0.817709564,0.826741368,0.84562984,0.868369224,0.889908384,0.905812515,0.915873082,0.922170784,0.927685328,0.934117418,0.940975843,0.946800869,0.954354404,0.960851371,0.969642203,0.9796796,0.989466757,0.997117608,1,0.999615372,0.99568568,0.989897726,0.98254809,0.97437359,0.964804234,0.953019792,0.941272423,0.928014347,0.913560681,0.89710973,0.880440978,0.862103961,0.842715009,0.822023884\nSRI-1052827-001.txt,CN1C(=O)c2cccc3c(ccc1c23)S(=O)(=O)NC(Cc1c[nH]c2ccccc12)C(O)=O,1,0.985741958,0.96659363,0.940586199,0.906735258,0.863548315,0.812136801,0.753739164,0.691594424,0.627607888,0.565240862,0.508875552,0.458480201,0.415102728,0.378933664,0.349973008,0.327109333,0.310310882,0.298116922,0.290590962,0.286685085,0.285637166,0.287415452,0.290940269,0.296116351,0.302245086,0.309199454,0.316471373,0.323994157,0.331123178,0.337798101,0.342974183,0.346924518,0.34855673,0.348204249,0.34497793,0.339449366,0.331847194,0.32180623,0.310006033,0.296808612,0.281858309,0.265485377,0.247880347,0.229640215,0.211412785,0.19368391,0.177196659,0.162757613,0.15048109,0.140605252,0.133393668,0.128077864,0.124457782,0.122269855,0.120875806,0.120224826,0.120415357,0.12127592,0.122844622,0.124676892,0.126639357,0.1284621,0.129440158,0.129557651,0.128770125,0.127452288,0.125594614,0.123908418,0.122571528,0.120602712,0.11732241,0.112184434,0.104960147,0.096583151,0.088139468,0.079654504,0.071903083,0.064758185,0.057629164,0.050395351,0.043205995,0.035984885,0.028890794,0.022346067,0.016499952,0.011501699,0.00749738,0.004509225,0.002483249,0.000952653,0.000101616,0,0.000501731,0.001390874,0.002807151,0.004750564,0.007021054,0.00979645,0.012848115,0.016293544,0.019865993,0.023219333,0.025994729,0.028497031,0.030348353,0.031516941,0.032514052,0.033501635,0.034790893,0.036489791,0.038150583,0.040233718,0.042739195,0.046038551,0.049601473,0.053678829,0.057737131,0.061160332,0.063440348,0.064456511,0.064158013,0.062795719,0.060474421,0.057562478,0.054828364,0.052529294,0.050236576,0.048940967,0.047775555,0.046972151,0.046594265,0.046394208,0.046635547,0.046797498,0.047254771,0.047769204,0.048242355,0.048524975,0.049366486,0.049868216,0.050398527,0.050957416,0.051573465,0.051744943,0.052087898,0.052341939,0.052522943,0.052611857,0.052529294,0.052380045,0.0521006,0.051751294,0.051348004,0.050935188,0.050487441,0.050020641,0.049471278,0.048763139,0.047959735,0.04693722,0.04584802,0.0444762,0.042764599,0.040640183,0.038474485,0.03645486,0.034686101,0.032723635,0.030802451,0.028706615,0.026442476,0.024108475,0.021828459,0.019570671,0.017150932,0.014724842,0.012178083,0.009561462,0.007116319,0.004664825\nSRI-1052855-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)Cc1csc(n1)-c1ccccc1Cl,0.997141979,1,0.996963353,0.985888523,0.962131226,0.927299099,0.878712747,0.819408818,0.752066706,0.680401838,0.610308881,0.545235322,0.486806662,0.435826718,0.392081139,0.354873283,0.323417192,0.297051952,0.274884429,0.256057218,0.24044528,0.227155483,0.215562637,0.205577427,0.197003365,0.189554649,0.182874026,0.177122259,0.172013547,0.167583615,0.164214723,0.161719314,0.160376044,0.160276013,0.161451374,0.163927135,0.167683646,0.172447609,0.178324414,0.185160442,0.192936045,0.201567267,0.211127346,0.221743107,0.233135892,0.245060983,0.25774345,0.270786742,0.284330187,0.298041541,0.311829705,0.325592861,0.33944533,0.353194195,0.366410755,0.379230764,0.391323764,0.403629329,0.415981337,0.428822781,0.441985753,0.454507456,0.466161035,0.476346306,0.484563116,0.490743586,0.495016326,0.499231907,0.504390634,0.511607136,0.519375594,0.525824003,0.527540602,0.524318183,0.517687575,0.510195989,0.502666891,0.495902313,0.490211279,0.484888216,0.480079596,0.47531206,0.470971441,0.466377173,0.461416721,0.45611152,0.44952021,0.442175097,0.433615325,0.423821245,0.412539208,0.399954986,0.386581236,0.372058918,0.356781011,0.341754968,0.326494923,0.311477811,0.296748287,0.281952671,0.267262445,0.252152447,0.23628686,0.220160478,0.203383896,0.186017848,0.168333845,0.150151475,0.132145945,0.114465514,0.097740735,0.082344935,0.068474603,0.056308366,0.046040927,0.037529384,0.030596898,0.024925513,0.020565245,0.016955208,0.014152561,0.011871503,0.010033439,0.00858478,0.007362976,0.006464486,0.005671385,0.004885429,0.00426381,0.003701137,0.003211701,0.002881242,0.002618661,0.002309638,0.002045271,0.001773759,0.001566553,0.001395071,0.00118072,0.001066399,0.000986017,0.000793101,0.000653772,0.000637696,0.00050194,0.000439421,0.000425131,0.000421558,0.000401909,0.000341176,0.000266153,0.000198275,0.000150046,0.000128611,0.000116107,0.000107176,9.82E-05,9.11E-05,8.57E-05,8.22E-05,7.5E-05,7.15E-05,6.79E-05,6.43E-05,5E-05,2.14E-05,1.07E-05,9.47E-05,4.64E-05,9.47E-05,5.72E-05,7.5E-05,5.54E-05,1.96E-05,4.47E-05,3.04E-05,1.07E-05,1.79E-05,4.11E-05,0,4.29E-05\nSRI-1052845-001.txt,CC[C@@H](C)[C@H](NC(=O)COc1ccc2C(=O)CC3(CCN(CC3)C(C)=O)Oc2c1)C(O)=O,1,0.929990856,0.868820482,0.819993904,0.784395002,0.760469369,0.746296861,0.739622066,0.736177995,0.732642487,0.727217312,0.719597684,0.709234989,0.696616885,0.681865285,0.662633343,0.636513258,0.600091436,0.551539165,0.49036879,0.42316367,0.3557452,0.294117647,0.243157574,0.205272783,0.179548918,0.165132582,0.159649497,0.161167327,0.168183481,0.179399573,0.194370619,0.212121304,0.23225541,0.254526059,0.27909174,0.305604998,0.333764096,0.363736666,0.394961902,0.42716245,0.460448034,0.494276135,0.527973179,0.561100274,0.593864675,0.624861323,0.654081073,0.680530326,0.704452911,0.72462359,0.74078025,0.752508382,0.759524535,0.761017982,0.75746114,0.748095093,0.733413593,0.713596464,0.688982018,0.660176775,0.628244438,0.593748857,0.557775069,0.521398964,0.485367266,0.450502895,0.417726303,0.388043279,0.361209997,0.337363609,0.317360561,0.300332216,0.286738799,0.276318196,0.26906431,0.264492533,0.262362085,0.262362085,0.264157269,0.267467236,0.272026821,0.277235599,0.283316062,0.289576349,0.296245047,0.303099665,0.309984761,0.316318196,0.322831454,0.328802194,0.333916489,0.338777812,0.342148735,0.344943615,0.346257239,0.346516306,0.345053337,0.341978055,0.337656202,0.331807376,0.32442548,0.315580616,0.305754343,0.294422432,0.282142639,0.268911917,0.254855227,0.240259067,0.22462359,0.208579701,0.192270649,0.175839683,0.159478817,0.143252057,0.127866504,0.113157574,0.099058214,0.085967693,0.073946967,0.063151478,0.053495885,0.044925328,0.037637915,0.031286193,0.025693386,0.021161231,0.017202073,0.013995733,0.011243523,0.009128315,0.007479427,0.006004267,0.004894849,0.00388601,0.003139287,0.002569339,0.002121304,0.001740323,0.001353246,0.001091131,0.000972265,0.000795489,0.000673575,0.000521183,0.000353551,0.000295642,0.000295642,0.00028345,0.000216397,0.000143249,9.45E-05,6.4E-05,5.18E-05,4.57E-05,4.27E-05,3.96E-05,3.96E-05,4.27E-05,3.66E-05,3.05E-05,2.44E-05,1.52E-05,3.05E-06,0,0,0,0,1.83E-05,0,1.83E-05,3.05E-06,6.4E-05,4.88E-05,0,0.000149345,3.05E-06,1.83E-05,0,0,8.23E-05\nSRI-1052799-001.txt,CCCc1cc(=O)oc2cc(OC(C)C(=O)N[C@@H](Cc3c[nH]c4ccccc34)C(O)=O)ccc12,1,0.984052015,0.96053896,0.926598377,0.882639187,0.827230162,0.76159807,0.688523585,0.61311824,0.538121818,0.468114253,0.406101127,0.352798054,0.308777526,0.273691959,0.2457012,0.224253205,0.207466928,0.194626756,0.184444581,0.176531927,0.17037764,0.165715921,0.162464986,0.160583942,0.159500296,0.158805128,0.158191744,0.157537468,0.1568607,0.156349547,0.156441555,0.157639698,0.159876505,0.163086548,0.166775031,0.17019158,0.17252244,0.173240099,0.172467235,0.170968533,0.169688605,0.169794925,0.171690282,0.175382854,0.180702938,0.187241612,0.194604265,0.202531231,0.210799648,0.219127359,0.227248564,0.23559672,0.243568668,0.251354556,0.258326688,0.264992128,0.271416304,0.278167617,0.285221534,0.292232513,0.298875463,0.304782351,0.309495185,0.312690916,0.314001513,0.313860435,0.313351326,0.313903372,0.316481629,0.32009855,0.322490748,0.32165859,0.316831258,0.309949089,0.302525098,0.295765606,0.290878979,0.28756875,0.285847186,0.285448486,0.286043468,0.287738453,0.290132695,0.293312069,0.29735427,0.301821751,0.306630681,0.311413032,0.316326239,0.320928663,0.325379787,0.329391319,0.333014374,0.336285755,0.339080742,0.341650821,0.343672944,0.344875176,0.345490605,0.344852686,0.343441902,0.340342268,0.336273487,0.330597641,0.323721605,0.315549285,0.306565254,0.296634566,0.286425811,0.275943078,0.265212946,0.254556421,0.243820156,0.232705637,0.221603386,0.210288495,0.198331595,0.185973952,0.172888425,0.159312192,0.145525363,0.131491137,0.117409884,0.103825472,0.090856489,0.078556094,0.067183954,0.056989511,0.048064773,0.040397473,0.033670695,0.027951911,0.023040749,0.018908585,0.015436832,0.012690916,0.01033961,0.00841154,0.006855589,0.00563291,0.004651496,0.00373142,0.003071009,0.002578258,0.002210227,0.002030301,0.001966918,0.001856509,0.001598888,0.001290151,0.001020262,0.000844425,0.000738105,0.000670633,0.000619518,0.000574536,0.000535689,0.00050093,0.000466172,0.000427324,0.000384387,0.000347584,0.000306692,0.000261711,0.00021264,0.000194238,0.000310781,0.000302603,0.000194238,0.000124721,9.41E-05,3.48E-05,0.000228997,0.000171748,6.34E-05,6.13E-05,7.16E-05,0,3.07E-05,0.000122677\nSRI-1053293-001.txt,CC(C)(C)OC(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(O)=O,0.99515608,1,0.993962156,0.973290216,0.936722031,0.882176762,0.81030254,0.723930671,0.629985912,0.53389209,0.443256206,0.362581059,0.294800291,0.239470444,0.196079836,0.163059311,0.137714011,0.118986461,0.10476171,0.094016394,0.08620472,0.080098652,0.075561741,0.072082306,0.069558009,0.067750067,0.066726704,0.066249134,0.066146798,0.066764227,0.067753479,0.069189599,0.071243148,0.073521837,0.076325853,0.079505101,0.083380237,0.087453224,0.091880976,0.096738541,0.101851947,0.107064277,0.11231072,0.117806182,0.123219774,0.128899441,0.134169762,0.139412794,0.144307882,0.149448578,0.153726237,0.157816279,0.161585667,0.165007112,0.167517764,0.169206313,0.170260378,0.171293975,0.172559534,0.174589205,0.176731446,0.178300603,0.178583733,0.17742051,0.174394766,0.16877309,0.161643658,0.154667731,0.150178577,0.148616242,0.148275121,0.14548475,0.137188684,0.123499493,0.106784558,0.08997752,0.074565668,0.061521196,0.050885039,0.041974955,0.034381599,0.02796511,0.022616331,0.018120354,0.014603396,0.011727744,0.009244383,0.00729317,0.005990087,0.004734761,0.00366023,0.003073501,0.002479951,0.002070605,0.001824998,0.001524811,0.001309905,0.001122289,0.000811868,0.000818691,0.000736822,0.000805046,0.000729999,0.000521915,0.000532149,0.000515093,0.000596962,0.000757289,0.000552616,0.000559439,0.000501448,0.000532149,0.000644719,0.000538971,0.000426401,0.000392289,0.000412757,0.000262663,0.000474158,0.000300187,0.000371822,0.000324065,0.000402523,0.000480981,0.000654953,0.000610607,0.00033771,0.000365,0.000361588,0.000440046,0.000603784,0.000463925,0.000498037,0.000440046,0.000433224,0.000453691,0.000542383,0.000228551,0.000347944,0.000365,0.000324065,0.000330887,0.000238785,0.000371822,0.000330887,0.00033771,0.000296775,0.000211495,0.000115981,3.41E-05,1.36E-05,6.82E-06,1.36E-05,2.39E-05,3.41E-05,6.48E-05,9.55E-05,0.000119392,0.00013986,0.000153505,0.000167149,0.000177383,0.000184205,0.000173972,0.000167149,0.000191028,0.000293364,0.000296775,0.000160327,6.48E-05,0.000105748,8.87E-05,9.55E-05,0.000160327,0.000283131,0.000279719,0.000378644,0.000221729,0,0.000191028,0.000283131\nSRI-1052789-001.txt,CC(Sc1nc(-c2ccccc2)c(C#N)c(=O)[nH]1)C(=O)Nc1ccc(Oc2ccccc2)cc1,0.615693125,0.60778756,0.60354555,0.601810182,0.602003,0.604316824,0.608558835,0.614729032,0.622634597,0.631889893,0.643073375,0.655992226,0.670453625,0.686553983,0.704678938,0.724346441,0.745730031,0.768906834,0.793201985,0.818441948,0.844163958,0.869789558,0.894701729,0.91785925,0.938876484,0.956770056,0.971809912,0.983109085,0.991342442,0.997204129,1,0.999980718,0.998939497,0.995825476,0.991847627,0.986936536,0.979135093,0.971050206,0.960803822,0.948401726,0.934707745,0.920236704,0.904498845,0.888903672,0.872292344,0.854601232,0.836144629,0.817554982,0.799395321,0.780967641,0.762536105,0.743722788,0.723920312,0.703165311,0.682574206,0.662361026,0.643509145,0.626213311,0.6103077,0.59510202,0.58030126,0.565687534,0.551646479,0.538368986,0.526071011,0.514521173,0.503771533,0.493704471,0.483918924,0.473986834,0.464155011,0.454109159,0.443714304,0.433346445,0.422731778,0.412132536,0.401541007,0.391527934,0.382143449,0.37289201,0.364357856,0.356608474,0.349904169,0.343903652,0.339077401,0.335390708,0.333042177,0.331831276,0.332016382,0.333385394,0.335635588,0.338743825,0.3423746,0.346610826,0.351417796,0.356390589,0.361415443,0.366627332,0.37162712,0.37642252,0.381086803,0.385544771,0.389352939,0.392854526,0.395862497,0.398401919,0.400015811,0.400752378,0.400721527,0.399724655,0.397831176,0.394773072,0.390544558,0.385371234,0.379179827,0.37202047,0.364190104,0.355387932,0.345908966,0.335639445,0.324633355,0.313129794,0.300775902,0.28783777,0.273991462,0.259333387,0.244089144,0.228453479,0.212981709,0.197984274,0.183310774,0.168511941,0.153472086,0.138522855,0.124260058,0.110595,0.097772559,0.085852509,0.074813641,0.064644385,0.055583836,0.047350479,0.040119779,0.033810752,0.028404117,0.024100405,0.021530132,0.020217037,0.018641708,0.015814987,0.012592987,0.009714204,0.007809156,0.006686951,0.006004373,0.005489547,0.005011357,0.004537023,0.004062689,0.003584499,0.003088955,0.002522068,0.001932043,0.001384438,0.000939027,0.000676794,0.000509041,0.00039335,0.000385637,0.000295013,0.000275731,0.000302725,0.000183178,0.000138829,0.000115691,5.98E-05,3.09E-05,3.86E-05,0,3.28E-05,4.43E-05\nSRI-1053034-001.txt,OCCN1CCN(CC1)C(=O)c1cc2cc(Br)ccc2oc1=O,0.986291718,0.988663634,0.99194246,0.994977118,0.997872251,1,0.999302377,0.996023552,0.988872921,0.977187744,0.959363489,0.935051345,0.902228206,0.86078943,0.810700134,0.753634613,0.690988113,0.626527793,0.5634976,0.503118373,0.448843342,0.400079529,0.356307205,0.317191511,0.282606876,0.252047522,0.226015738,0.204120856,0.186826794,0.173728932,0.164464505,0.158607964,0.155918629,0.155963975,0.158716096,0.163829668,0.170973323,0.179909867,0.190555587,0.202380288,0.215586282,0.229646863,0.244746903,0.260649208,0.277266576,0.294469946,0.312398845,0.330903282,0.34982978,0.369132995,0.388443186,0.408123116,0.427673987,0.446530723,0.465307233,0.483445418,0.500983648,0.517440563,0.533607964,0.54891729,0.563476672,0.576734987,0.588249247,0.598413606,0.606174657,0.611940507,0.615142594,0.615728597,0.614462412,0.610778965,0.605783988,0.599006586,0.590544425,0.580864912,0.569507618,0.556441149,0.541916648,0.524905123,0.506878558,0.486727732,0.465209566,0.442474048,0.419435065,0.396333296,0.373531505,0.351430824,0.330652138,0.311460542,0.29407579,0.278874595,0.26556047,0.25445432,0.245482894,0.238548527,0.233483787,0.230347974,0.228708561,0.228317893,0.229312005,0.231328134,0.234027933,0.237306759,0.241178563,0.245130595,0.249033793,0.25304861,0.257101797,0.260809661,0.264032677,0.267273133,0.270039206,0.272296015,0.274071464,0.275285328,0.276073641,0.276398035,0.275825985,0.274622586,0.272812256,0.270391506,0.267105704,0.263153672,0.258573781,0.253355564,0.247432749,0.240916955,0.233937242,0.226664527,0.219001144,0.211533095,0.204260381,0.196652807,0.188588291,0.180011022,0.171353527,0.162389078,0.153424629,0.144310191,0.135227146,0.125966207,0.116802936,0.107615247,0.098668239,0.090171197,0.081677643,0.074157272,0.069130902,0.066336924,0.062506976,0.055223797,0.046904649,0.039352885,0.033914918,0.030391924,0.028023496,0.026108522,0.024273775,0.022376242,0.020405458,0.018333519,0.016136008,0.013600151,0.010813149,0.007998242,0.00545192,0.003749721,0.002867228,0.002441679,0.001820795,0.001398733,0.001172006,0.001001088,0.00062786,0.000491824,0.000474383,0.00031393,0.000299978,0.000299978,0.000209287,0,3.14E-05\nSRI-0000355.txt,CN(C)CC(OCC1=CC=CC=C1)OCC1=CC=CC=C1,1,0.734466277,0.528235086,0.383076651,0.287484511,0.227296867,0.188351921,0.158258099,0.136130289,0.12550894,0.115772703,0.106036467,0.097185343,0.089219331,0.082138432,0.078597982,0.07063197,0.067976633,0.064436183,0.059125509,0.058240397,0.060010621,0.057355284,0.056470172,0.059125509,0.062665959,0.065321296,0.067091521,0.070100903,0.074969021,0.077358825,0.080987785,0.086741016,0.093113825,0.098335989,0.097539388,0.10125686,0.105859444,0.113559922,0.114887591,0.108249248,0.104797309,0.103292618,0.103558152,0.100106213,0.095238095,0.088688263,0.077801381,0.070100903,0.064259161,0.056116127,0.046822446,0.03708621,0.032218092,0.030447867,0.027969552,0.02566826,0.02850062,0.028235086,0.03212958,0.03283767,0.03283767,0.032395114,0.032041069,0.030182333,0.030801912,0.036112586,0.034519384,0.035493008,0.032483625,0.028235086,0.026553372,0.020534608,0.013719242,0.012303062,0.015577978,0.014692866,0.017436714,0.012745619,0.011063905,0.009116658,0.010532838,0.010355815,0.01141795,0.007788989,0.009559214,0.011506461,0.009647725,0.006903877,0.008851124,0.007346433,0.006284298,0.007966012,0.003983006,0.005399186,0.006461321,0.006726854,0.005310674,0.006992388,0.005841742,0.005753231,0.005841742,0.007169411,0.007346433,0.004337051,0.007788989,0.005664719,0.002389804,0.007700478,0.006726854,0.004160028,0.004868118,0.001681714,0.0078775,0.006815366,0.005930253,0.004602585,0.007700478,0.007346433,0.010355815,0.006549832,0.011152416,0.006903877,0.005930253,0.008851124,0.008231545,0.004868118,0.01070986,0.007523455,0.007080899,0.007523455,0.011683484,0.010444326,0.006903877,0.004337051,0.003186405,0.007434944,0.005310674,0.00424854,0.003451938,0.005753231,0.003894495,0.006815366,0.008497079,0.007169411,0.006726854,0.006638343,0.007169411,0.007434944,0.007169411,0.006903877,0.006638343,0.006461321,0.006284298,0.005930253,0.005664719,0.005399186,0.005222163,0.005133652,0.005045141,0.004868118,0.004868118,0.004956629,0.005310674,0.005576208,0.005310674,0.004691096,0.005045141,0.005841742,0,0.003097893,0.002035759,0.003628961,0.006107276,0.005045141,0.004602585,0.00283236,0.002566826,0.005664719,0.004160028,0.002566826\nSRI-1052994-001.txt,CC[C@@H](C)[C@H](NC(=O)CC(c1ccc(F)cc1)c1ccc(Cl)cc1)C(O)=O,0.93185217,0.954568113,0.974760063,0.991166022,1,1,0.99179702,0.972236069,0.940686148,0.890837272,0.822689442,0.740407246,0.647208778,0.551486317,0.461127342,0.379728544,0.308930521,0.250373867,0.201408388,0.161655487,0.129222168,0.102972634,0.082275885,0.066185425,0.054575054,0.045804176,0.040819288,0.04006209,0.03999899,0.040693089,0.042207485,0.043911181,0.046321595,0.04832186,0.050524044,0.053085898,0.055698231,0.058531414,0.061415077,0.064008481,0.066179115,0.067295982,0.068532739,0.069586507,0.071441642,0.073965636,0.075953281,0.07619937,0.073845746,0.069737946,0.065945646,0.06415992,0.065043318,0.065958266,0.063131393,0.056871888,0.049262047,0.042365235,0.036926028,0.03213675,0.026893153,0.022116495,0.018216925,0.01617249,0.014531894,0.013345617,0.012771408,0.012317089,0.012500079,0.012752478,0.012575799,0.012272919,0.012272919,0.01193849,0.011452621,0.010897343,0.010720663,0.010335754,0.010146455,0.009969775,0.009887745,0.008852908,0.00816512,0.007256482,0.005843045,0.005130017,0.00420876,0.003489421,0.003735511,0.003647171,0.003546211,0.003457871,0.003571451,0.003527281,0.003312742,0.003344292,0.003464181,0.003508351,0.003703961,0.003710271,0.003621931,0.003180232,0.003060342,0.002984623,0.003066652,0.002732223,0.002612333,0.002700673,0.002568164,0.002151705,0.002612333,0.002309454,0.002176945,0.001577496,0.001590116,0.001552256,0.001388197,0.001224137,0.001407126,0.001135797,0.001198897,0.001104247,0.000889708,0.000605758,0.000599449,0.000744578,0.000567899,0.000296569,7.57E-05,6.94E-05,0.000448009,0.000397529,0.000511109,0.000296569,0.00019561,0.00018299,0.000208229,0.000416459,0.000290259,0.000265019,0.000271329,0.000391219,0.000372289,0.000302879,0.000340739,0.000239779,0.000246089,0.000239779,0.000239779,0.000246089,0.000208229,0.000201919,0.00017668,0.00013882,9.46E-05,8.2E-05,6.94E-05,5.05E-05,2.52E-05,0,1.26E-05,2.52E-05,4.42E-05,5.05E-05,6.31E-05,0.00010096,6.31E-05,0.000378599,0.000403839,0.00010096,0.00015144,0.000315499,0.000315499,0.000214539,0.000422769,0.000403839,1.26E-05,0.000258709,0.000208229,0.000296569,0.000214539\nSRI-1053342-001.txt,CC(C)C(NS(=O)(=O)c1cc(C)ccc1C)C(O)=O,0.705694875,0.75266292,0.799630965,0.84492158,0.885179904,0.923760798,0.954793257,0.978948251,0.99387738,1,0.995219324,0.980457938,0.955799715,0.920825296,0.877044368,0.825882748,0.767508177,0.704185188,0.637675082,0.568397215,0.500125807,0.433364086,0.369957226,0.311582655,0.260253292,0.215717521,0.178562442,0.14786547,0.123458861,0.104277447,0.089348318,0.078201795,0.069445609,0.062786212,0.058290699,0.055204227,0.053904219,0.052537113,0.051060975,0.04930806,0.047563533,0.047169337,0.046959658,0.048343538,0.049266124,0.048947413,0.046464816,0.043487377,0.041340267,0.039545416,0.037675082,0.034680869,0.031804076,0.029254382,0.027727921,0.027409209,0.024918225,0.020473035,0.015289776,0.01074394,0.007766502,0.00588778,0.004453577,0.003078084,0.002927116,0.002306466,0.001920658,0.001769689,0.001576784,0.001492913,0.001551623,0.001484526,0.001249685,0.001199363,0.001140653,0.000780005,0.000729682,0.00103162,0.000939361,0.000830328,0.000863877,0.000754844,0.00103162,0.000796779,0.000897425,0.000914199,0.000847102,0.000696134,0.000788392,0.000662585,0.000855489,0.000654198,0.000679359,0.000654198,0.000654198,0.000561939,0.000595488,0.000444519,0.000578713,0.000511616,0.000637423,0.000637423,0.000528391,0.000645811,0.000738069,0.000511616,0.000603875,0.000754844,0.000754844,0.000561939,0.000771618,0.000729682,0.000738069,0.000402583,0.000679359,0.000729682,0.000478068,0.000595488,0.000687746,0.000444519,0.000905812,0.000402583,0.000528391,0.000578713,0.000830328,0.000520003,0.000654198,0.000989684,0.000553552,0.000729682,0.000796779,0.001107104,0.000696134,0.000905812,0.000394196,0.000847102,0.000905812,0.000654198,0.000511616,0.000578713,0.000385809,0.000528391,0.000402583,0.00029355,0.000385809,0.000394196,0.000419358,0.00046968,0.000461293,0.000394196,0.000301937,0.000226453,0.000184517,0.000134194,0.000109033,0.000100646,0.000100646,0.000100646,0.000109033,0.000125807,0.000125807,0.000142582,0.000159356,0.000184517,0.000243227,0.00035226,0.000318712,0.00011742,0.000226453,8.39E-06,0,0.00046968,0.000561939,0.000478068,0.000360647,0.000251615,0.000167743,0.000436132,0.000419358,0.000260002,0.00046968\nSRI-1053100-001.txt,CC[C@@H](C)[C@H](NC(=O)CNS(=O)(=O)c1ccc(Cl)cc1)C(O)=O,0.599542261,0.642567174,0.687190339,0.733092104,0.778354569,0.822530223,0.864724046,0.903018137,0.936581405,0.96407132,0.983953561,0.996803498,1,0.995141317,0.980757059,0.956847226,0.924370769,0.882816246,0.833909769,0.777203828,0.716662085,0.65215668,0.585349793,0.517264306,0.45077707,0.386591314,0.327519962,0.274010523,0.227725178,0.188747035,0.156232219,0.13024466,0.10976787,0.093747003,0.081146393,0.071787036,0.06494013,0.059844906,0.056603653,0.054398067,0.052205267,0.049379559,0.046579423,0.044412195,0.042545438,0.04205957,0.041580095,0.041132584,0.039975451,0.03780183,0.035353309,0.03346098,0.030961316,0.02875573,0.026639646,0.024900749,0.023641327,0.023219389,0.02260566,0.020137961,0.01634691,0.012268174,0.008969384,0.006904444,0.005139975,0.004238561,0.003784658,0.003017498,0.00270424,0.002422948,0.002346232,0.002397376,0.002263123,0.00187315,0.00206494,0.002032975,0.001751683,0.002218372,0.001783648,0.001796434,0.001764469,0.001770862,0.001316959,0.000926986,0.000869448,0.000747981,0.000326043,0.000236541,0.000249327,0.00031965,0.00025572,0,9.59E-05,0.000179004,0.000121467,0.000223755,0.000684051,0.000716016,0.00076716,0.000888627,0.001502356,0.001400068,0.001508749,0.002039368,0.002013796,0.002026582,0.001892329,0.001969045,0.002154442,0.002045761,0.002109691,0.002154442,0.002211979,0.002301481,0.002870459,0.003254039,0.003324362,0.003695156,0.003803837,0.003880553,0.004110701,0.003573689,0.003317969,0.002768171,0.00251245,0.002231158,0.002096905,0.002218372,0.002071333,0.001796434,0.001713325,0.001905115,0.001527928,0.00148957,0.002116084,0.002103298,0.00212887,0.002218372,0.00200101,0.001687753,0.002135263,0.001796434,0.002058547,0.002595559,0.002499664,0.002403769,0.002327053,0.002224765,0.002122477,0.002096905,0.002096905,0.002109691,0.002148049,0.002173621,0.0021928,0.002199193,0.002199193,0.0021928,0.002167228,0.00212887,0.002084119,0.002039368,0.001969045,0.001924294,0.001879543,0.001802827,0.00174529,0.001502356,0.001502356,0.00129778,0.001310566,0.001342531,0.001566286,0.001131562,0.000562584,0.000926986,0.000965344,0.000479475,0.0006393,0.000428331,0.000453903\nSRI-0000423.txt,CNC(C1=NC2=CC(Cl)=CC=C2N1)C1=CC=CC=C1,1,0.917002219,0.833182677,0.755115457,0.685265839,0.620346783,0.559536527,0.506122114,0.45435122,0.41326321,0.370531679,0.333552469,0.303147342,0.282603336,0.260415811,0.243158846,0.234119484,0.230832443,0.229188923,0.227545402,0.227545402,0.226723642,0.230832443,0.237406525,0.239050045,0.245624127,0.247514175,0.253184321,0.257621826,0.260251459,0.261566275,0.259922755,0.256964418,0.256224834,0.252937793,0.24866464,0.24389843,0.237570877,0.229517627,0.2193278,0.212178486,0.198865971,0.193771058,0.186868272,0.181773359,0.178897198,0.175527981,0.178732846,0.181444654,0.192045361,0.2032213,0.213000247,0.224833594,0.237899581,0.247842879,0.255485249,0.267893829,0.284739913,0.2978059,0.313830224,0.327389268,0.338318679,0.348837209,0.357219163,0.362724957,0.361574493,0.346947161,0.337825622,0.325170515,0.326403156,0.322705235,0.308899663,0.286301257,0.257868354,0.220806969,0.177746734,0.140110116,0.104938779,0.074451475,0.05308571,0.042238475,0.031555592,0.022844934,0.016681732,0.01446298,0.011093763,0.008217602,0.011175939,0.008217602,0.007313666,0.008628482,0.00764237,0.006984962,0.006574082,0.004848385,0.002547457,0.003369217,0.004601857,0.003780097,0.003122689,0.004190977,0.00599885,0.006163202,0.003451393,0.005177089,0.007478018,0.004108801,0.002711809,0.005916674,0.005587969,0.005505793,0.007724546,0.002465281,0.001396992,0.004273153,0.003451393,0.001396992,0.003287041,0.001150464,0.006081026,0.000739584,0.003369217,0.00123264,0.002547457,0.006081026,0.004273153,0.004437505,0.005094913,0.006984962,0.007560194,0.006163202,0.007313666,0.006984962,0.002218753,0.004190977,0.007806722,0.00764237,0.002465281,0.004930561,0.002136577,0.002629633,0.005916674,0.006081026,0.005834497,0.005341441,0.003862273,0.002547457,0.001807872,0.001890048,0.002793985,0.003369217,0.003780097,0.004108801,0.004273153,0.004273153,0.004108801,0.003944449,0.003697921,0.003287041,0.003040513,0.002876161,0.002547457,0.002218753,0.002054401,0.001807872,0.001561344,0.00082176,0.005259265,0.00846413,0.000903936,0.001725696,0,0.004684033,0.002218753,0.000739584,0.002547457,0.001150464,0.001314816,0.003615745,0.006163202,0.00682061\nSRI-1053110-001.txt,CC(C)[C@H](NC(=O)[C@H](C(C)C)n1c(=O)[nH]c2ccccc2c1=O)C(O)=O,0.991531932,1,0.992933543,0.969398154,0.929656634,0.873592184,0.804913232,0.728175015,0.648399973,0.570639748,0.49994598,0.438800688,0.387875479,0.347316352,0.3159261,0.29233231,0.274578568,0.261117259,0.250984778,0.242837912,0.236063458,0.230398612,0.225492973,0.221229739,0.216937304,0.211768863,0.204906807,0.195971536,0.184583444,0.170979055,0.155835813,0.139790284,0.123470273,0.107132741,0.091717937,0.077418582,0.06464932,0.053836473,0.044504078,0.036871136,0.030523005,0.025523925,0.021616934,0.018515869,0.016086409,0.014144594,0.012655382,0.011656734,0.010798247,0.010252202,0.009691558,0.009466716,0.009472556,0.009603957,0.009849239,0.010263883,0.010774887,0.011431892,0.012109337,0.012903584,0.01370075,0.014535877,0.015528685,0.016623694,0.017870544,0.019091113,0.020492725,0.021973177,0.023698911,0.025459685,0.02732558,0.029366676,0.031547934,0.033673711,0.03603309,0.03852095,0.04105553,0.043674791,0.046200611,0.048962954,0.051465414,0.053999994,0.056522894,0.058969874,0.061308813,0.063557231,0.065659648,0.067800025,0.069955002,0.071920178,0.073564151,0.074831442,0.07590017,0.076460815,0.076840418,0.076598056,0.076046171,0.075260685,0.074203637,0.072837066,0.071467575,0.069899522,0.068165028,0.066357534,0.063916394,0.061448974,0.058701232,0.055264364,0.051713616,0.047748224,0.043400309,0.038824632,0.034392037,0.030093762,0.025728327,0.021666574,0.018223867,0.014994321,0.012281619,0.010012761,0.008056345,0.006365651,0.00502536,0.004026712,0.003127345,0.0024499,0.001950576,0.001366571,0.001173849,0.001022008,0.000835127,0.000601525,0.000528524,0.000473044,0.000344563,0.000385443,0.000332883,0.000239442,0.000148921,0.000140161,7.59E-05,0.000216082,0.000160601,0.000122641,0.000160601,8.18E-05,6.72E-05,5.55E-05,4.96E-05,2.92E-05,2.63E-05,2.92E-05,2.63E-05,3.21E-05,3.21E-05,3.8E-05,3.8E-05,3.5E-05,3.21E-05,2.92E-05,2.63E-05,2.04E-05,1.17E-05,8.76E-06,1.17E-05,8.76E-06,6.42E-05,0.000157681,0.000119721,4.67E-05,1.17E-05,5.84E-05,0.000105121,5.84E-05,5.84E-05,0.000169361,9.93E-05,0,5.84E-06,7.59E-05,0.000119721\nSRI-0000437.txt,CNC(C1=NC2=CC=CC=C2N1C1=CC=CC=C1)C1=CC=CC=C1,0,0.035714286,0.0625,0.098214286,0.071428571,0.0625,0.116071429,0.151785714,0.169642857,0.151785714,0.160714286,0.178571429,0.160714286,0.178571429,0.160714286,0.205357143,0.160714286,0.169642857,0.214285714,0.196428571,0.214285714,0.1875,0.1875,0.205357143,0.232142857,0.25,0.258928571,0.267857143,0.267857143,0.267857143,0.280357143,0.259821429,0.276785714,0.286607143,0.307142857,0.304464286,0.316964286,0.315178571,0.340178571,0.300892857,0.315178571,0.346428571,0.33125,0.327678571,0.342857143,0.342857143,0.341964286,0.357142857,0.336607143,0.297321429,0.3125,0.303571429,0.288392857,0.260714286,0.263392857,0.28125,0.20625,0.215178571,0.240178571,0.183035714,0.175892857,0.182142857,0.164285714,0.185714286,0.138392857,0.154464286,0.158928571,0.150892857,0.140178571,0.139285714,0.132142857,0.125892857,0.141071429,0.124107143,0.136607143,0.108035714,0.101785714,0.163392857,0.167857143,0.16875,0.147321429,0.173214286,0.159821429,0.119642857,0.164285714,0.180357143,0.1625,0.189285714,0.192857143,0.196428571,0.202678571,0.191964286,0.182142857,0.180357143,0.194642857,0.20625,0.233928571,0.283928571,0.289285714,0.238392857,0.283928571,0.302678571,0.296428571,0.317857143,0.322321429,0.378571429,0.394642857,0.375,0.409821429,0.429464286,0.399107143,0.403571429,0.453571429,0.444642857,0.4625,0.480357143,0.542857143,0.615178571,0.5875,0.555357143,0.65,0.651785714,0.66875,0.704464286,0.730357143,0.75,0.797321429,0.771428571,0.779464286,0.842857143,0.85,0.880357143,0.901785714,0.882142857,0.921428571,0.934821429,0.944642857,0.923214286,0.9625,0.997321429,1,0.928571429,0.982142857,0.999107143,0.977678571,0.994642857,0.996428571,0.991071429,0.983928571,0.974107143,0.966071429,0.958928571,0.951785714,0.947321429,0.944642857,0.941071429,0.9375,0.93125,0.923214286,0.9125,0.9,0.883928571,0.864285714,0.835714286,0.800892857,0.769642857,0.761607143,0.773214286,0.688392857,0.684821429,0.677678571,0.658035714,0.615178571,0.554464286,0.547321429,0.522321429,0.472321429,0.449107143,0.483035714,0.433035714,0.392857143\nSRI-1053068-001.txt,OC(=O)CC1(CNC(=O)CCn2nnc3ccccc3c2=O)CCCCC1,0.999389144,1,0.993280586,0.975711211,0.947582756,0.905550061,0.848420501,0.776659492,0.692826808,0.601983827,0.510908139,0.426290069,0.350514864,0.285822328,0.232706964,0.19047065,0.157891675,0.132613881,0.11353191,0.099045901,0.087934144,0.079411251,0.073040898,0.068124964,0.064488917,0.061696434,0.059916225,0.058807959,0.058397813,0.05855489,0.059264646,0.060445634,0.062065856,0.064125313,0.066542556,0.069497935,0.07276165,0.076391879,0.080234452,0.084414451,0.088678806,0.093135145,0.097879458,0.102673221,0.107487347,0.112374193,0.117298854,0.122159521,0.12688929,0.131572517,0.135895049,0.139926697,0.143807086,0.147294782,0.150081447,0.152222352,0.153883297,0.155125371,0.156463436,0.158330909,0.160433998,0.162170574,0.163197394,0.163113037,0.161513177,0.157816045,0.152795392,0.147303508,0.143088603,0.140537553,0.139371109,0.137445459,0.132253185,0.122927454,0.110591076,0.096841003,0.083506894,0.071537029,0.061001222,0.051940194,0.04389726,0.036854965,0.030973297,0.025650125,0.021147245,0.017362848,0.014125313,0.011507359,0.009142475,0.007475711,0.00602711,0.004773402,0.00387748,0.003164815,0.00272558,0.002193263,0.001818023,0.001541684,0.001332247,0.001093723,0.000962825,0.000968643,0.000831927,0.000654488,0.000689394,0.000730118,0.000648671,0.000610856,0.000654488,0.000514864,0.000459596,0.000503229,0.000642853,0.000503229,0.000573041,0.000532317,0.000343243,0.000383966,0.000264704,0.000453779,0.000552679,0.000267613,0.000386875,0.00034906,0.000317063,0.000232707,0.000232707,0.00022398,0.00020071,0.000171621,0.000244342,0.000168713,0.000191983,0.000212345,0.000171621,0.000119262,0.000101809,0.000177439,0.000203619,0.000127989,9.6E-05,9.6E-05,0.000148351,0.000302519,0.000186166,0.000113445,0.000104718,9.89E-05,9.31E-05,7.85E-05,6.98E-05,6.69E-05,7.27E-05,6.11E-05,5.53E-05,5.24E-05,4.95E-05,4.36E-05,3.49E-05,2.91E-05,2.33E-05,1.75E-05,8.73E-06,0,0,8.73E-06,0,0,4.07E-05,7.27E-05,9.6E-05,5.82E-05,0.000116353,7.27E-05,7.85E-05,0,0,8.14E-05,5.53E-05,1.45E-05,0\nSRI-031112-1.txt,COC(=O)C1CN(CC2=C1C=CC=C2)S(=O)(=O)C1=CC=C(OC2=CC=CC=C2)C=C1,0.864524316,0.86280466,0.853433036,0.844642069,0.841605639,0.838267673,0.832988571,0.834850785,0.84799511,0.856914356,0.864725668,0.876931331,0.892088463,0.908293953,0.929895902,0.952331452,0.970500894,0.983512772,0.992402585,0.997178001,1,0.995910749,0.984533501,0.972321269,0.962604396,0.951068731,0.939421715,0.930901349,0.922627218,0.909596384,0.900412479,0.893027643,0.887346641,0.885588175,0.884131268,0.879665899,0.876967524,0.876458028,0.876460392,0.87969205,0.886018415,0.894171514,0.903679927,0.912898738,0.919484052,0.926333066,0.934096732,0.941592841,0.946566714,0.946948681,0.94365372,0.938479233,0.931638682,0.923984657,0.918014921,0.912082807,0.897164651,0.874764458,0.854029161,0.839847045,0.831344727,0.81883401,0.802304732,0.788067185,0.777152518,0.768541289,0.760039736,0.752489386,0.745634927,0.735705326,0.723726701,0.707802067,0.685989126,0.657021247,0.620247048,0.578833574,0.534513304,0.489399021,0.445079058,0.401452185,0.36041736,0.322019377,0.286613727,0.254726932,0.225675684,0.199796302,0.176547632,0.15573532,0.13738844,0.120818995,0.106156119,0.093285125,0.081860032,0.071694447,0.062846608,0.055105586,0.048237107,0.042218474,0.037054394,0.032487993,0.028489997,0.0250259,0.021972615,0.01928507,0.017121617,0.015298237,0.013273087,0.011133218,0.00952954,0.008291503,0.007460528,0.006573768,0.005502977,0.004772154,0.004143214,0.003583649,0.003087038,0.002631049,0.002253213,0.001931791,0.00166353,0.001426231,0.001197823,0.000992069,0.000809059,0.000667458,0.000537106,0.000410804,0.000352432,0.00022318,0.000121719,0.0001162,0.000109899,6.62E-05,1.82E-05,0,1.84E-06,8.62E-07,1.89E-05,1.89E-05,4.27E-05,9.39E-05,0.000111483,0.000191751,0.000273071,0.000301099,0.000414658,0.000747553,0.000879257,0.000838346,0.000720169,0.00060207,0.000648932,0.000577369,0.000546997,0.000730901,0.000899093,0.00077517,0.000995406,0.001454134,0.001491934,0.001061517,0.001148963,0.001291648,0.001193992,0.000996705,0.000903886,0.00133923,0.002195344,0.002117156,0.000827281,0.000472946,0.001349814,0.002081323,0.002063983,0.001655313,0.000950784,0.000968988,0.00203387,0.002803361,0.002007907\nSRI-1053266-001.txt,CCCCC(NS(=O)(=O)c1ccc(cc1)C(C)C)C(O)=O,0.741400048,0.785502365,0.828602357,0.869697699,0.905781413,0.938858151,0.964918611,0.984965119,0.996993024,1,0.994988373,0.979953492,0.957701868,0.9242242,0.883329324,0.834816775,0.780290273,0.719449122,0.656402855,0.590249379,0.523294042,0.457140566,0.393192206,0.33335338,0.279227809,0.231416887,0.191023174,0.157445273,0.13048272,0.108832491,0.092394355,0.079664822,0.070874429,0.064700104,0.060430198,0.058355384,0.056992222,0.055468687,0.054686874,0.052702269,0.051860316,0.051850293,0.053053083,0.05470692,0.05507778,0.053834897,0.051609735,0.049965921,0.048081549,0.046768503,0.044823992,0.042528667,0.040513992,0.038539411,0.036875551,0.035171598,0.031823831,0.027523855,0.023544624,0.020267019,0.016979392,0.014413439,0.012088044,0.010494347,0.008950766,0.007848208,0.007427231,0.006926068,0.006304627,0.005763371,0.005743325,0.005582952,0.005743325,0.005532836,0.005091813,0.005322348,0.005141929,0.005161976,0.005212092,0.004580627,0.00551279,0.005061743,0.004761046,0.005312325,0.005392511,0.00502165,0.004951487,0.004660813,0.004430278,0.004430278,0.004530511,0.00418972,0.004289953,0.004299976,0.004299976,0.00418972,0.004380162,0.004149627,0.003337744,0.003538209,0.003247534,0.003267581,0.003087162,0.003147302,0.002716302,0.002315372,0.002235186,0.002505813,0.001583674,0.001854302,0.001002325,0.00120279,0.00123286,0.000711651,0.000841953,0.000441023,0.000811884,0.001393232,0.000862,0.000942186,0.001122604,0.001383209,0.000641488,0.000451046,0.001252907,0.000671558,0.000431,0.001242883,0.001152674,0.000902093,0.001192767,0.000862,0.001012349,0.000992302,0.001102558,0.000902093,0.001092535,0.000791837,0.000571325,0.001002325,0.000611418,0.000501163,0.000681581,0.000862,0.000561302,0.000451046,0.000441023,0.000350814,0.000200465,2E-05,0,6.01E-05,9.02E-05,8.02E-05,7.02E-05,0.000160372,0.000230535,0.000300698,0.000350814,0.00040093,0.000471093,0.000531232,0.000571325,0.000611418,0.000641488,0.000741721,0.001152674,0.001142651,0.000611418,0.000250581,0.000611418,0.000420977,0.000190442,0.000340791,0.000641488,0.000300698,0.000441023,0.00046107,0.000551279,0.000531232,0.000441023\nSRI-1052819-001.txt,COC(=O)[C@H](Cc1ccccc1)NS(=O)(=O)c1ccc(cc1)N1C(=O)CCS1(=O)=O,0.82529792,0.821403536,0.821922787,0.826855674,0.837500325,0.851000857,0.867357271,0.886154166,0.905210686,0.924267207,0.942155412,0.957888724,0.972038321,0.983565698,0.992522782,0.99787107,1,0.998649947,0.993457434,0.984604201,0.972271984,0.956097308,0.936729236,0.913362931,0.886959005,0.857491497,0.825427733,0.791157151,0.754939377,0.717137887,0.677931822,0.638567386,0.598561674,0.55863385,0.519025365,0.479962095,0.441906171,0.406129761,0.37269777,0.341397305,0.312005089,0.284536698,0.259319262,0.23670587,0.216623828,0.199288626,0.184513332,0.171869564,0.161162604,0.15072825,0.139418958,0.1268375,0.114289794,0.103743801,0.096097827,0.090840408,0.08650466,0.081158969,0.073403952,0.063309707,0.051810889,0.040501597,0.030383986,0.02219799,0.016031882,0.011568918,0.00855726,0.006545162,0.005163954,0.004141029,0.003499753,0.002967521,0.002474232,0.002095179,0.001975751,0.001781032,0.001588909,0.001427941,0.001235818,0.001186489,0.001228029,0.001129371,0.001124179,0.001183893,0.001202067,0.001337072,0.001357842,0.001300724,0.001396786,0.001482462,0.001388997,0.001417556,0.001446115,0.001482462,0.001508425,0.00139419,0.001404575,0.001440922,0.001453903,0.001417556,0.001376016,0.001339668,0.001225433,0.001259184,0.001305917,0.001396786,0.001363035,0.001318898,0.001511021,0.001440922,0.001344861,0.001461692,0.001420152,0.001391593,0.001225433,0.001238414,0.00124101,0.00124101,0.001098216,0.001212452,0.001176104,0.001069658,0.001025521,0.000906093,0.00088792,0.000937248,0.000763299,0.000719163,0.000594543,0.000542618,0.000563388,0.000462134,0.000254433,0.000355687,0.000358283,0.000179142,0.000202508,0.000231067,0.000238856,0.000194719,0.000259626,0.000179142,0.000202508,0.000171353,0.000223278,0.000225874,0.000238856,0.000241452,0.000220682,0.000173949,0.000119428,8.05E-05,6.75E-05,6.75E-05,7.01E-05,7.01E-05,7.01E-05,7.01E-05,7.53E-05,7.79E-05,8.05E-05,7.79E-05,8.05E-05,7.01E-05,5.19E-05,5.45E-05,4.41E-05,2.6E-05,7.79E-06,4.67E-05,7.79E-05,0.000127217,9.87E-05,8.31E-05,7.79E-05,1.82E-05,6.75E-05,0.00014539,0,5.19E-05,0.000163564\nSRI-0000621.txt,CO[C@H]1O[C@@H]2COC(O[C@H]2[C@@H](O)[C@@H]1N)C1=CC=CC=C1,1,0.730014025,0.572230014,0.446002805,0.368863955,0.302244039,0.256661992,0.204067321,0.183029453,0.165497896,0.154978962,0.144460028,0.130434783,0.12342216,0.116409537,0.119915849,0.12342216,0.130434783,0.130434783,0.133941094,0.147966339,0.153225806,0.174263675,0.185483871,0.199859748,0.214586255,0.235624123,0.258415147,0.273492286,0.302244039,0.316970547,0.338359046,0.354488079,0.371318373,0.383590463,0.433380084,0.457573633,0.477559607,0.434431978,0.431276297,0.44740533,0.461781206,0.461430575,0.416199158,0.381486676,0.341514727,0.310659187,0.305399719,0.256661992,0.231767181,0.167601683,0.127629734,0.073632539,0.056100982,0.0585554,0.038569425,0.031556802,0.010869565,0.011921459,0.010518934,0.015778401,0.023492286,0.021037868,0.02769986,0.010168303,0.020336606,0.028401122,0.011921459,0.021388499,0.022440393,0.014375877,0.01858345,0.035764376,0.029102384,0.032608696,0.026998597,0.016830295,0.017180926,0.023842917,0.019284712,0.023842917,0.033660589,0.036465638,0.03085554,0.019284712,0.02173913,0.022089762,0.020336606,0.013323983,0.016479663,0.014726508,0.01227209,0.008415147,0.015778401,0.023842917,0.017180926,0.016479663,0.017531557,0.016129032,0.01542777,0.017531557,0.021388499,0.023141655,0.019635344,0.018232819,0.015077139,0.021388499,0.028401122,0.000350631,0.024193548,0.028050491,0,0.016479663,0.018232819,0.014025245,0.023141655,0.012973352,0.008064516,0.018934081,0.011570827,0.02769986,0.02769986,0.01858345,0.019284712,0.017882188,0.02454418,0.022089762,0.012622721,0.013674614,0.014375877,0.022089762,0.023842917,0.024193548,0.019635344,0.014375877,0.019284712,0.02769986,0.027349229,0.011921459,0.015077139,0.013323983,0.003856942,0.008064516,0.010168303,0.011220196,0.011921459,0.015778401,0.016129032,0.011570827,0.00631136,0.002454418,0.001051893,0,0.000350631,0.001402525,0.00315568,0.004207574,0.005259467,0.005960729,0.005960729,0.007363254,0.008064516,0.008415147,0.009817672,0.011220196,0.014025245,0.024193548,0.027349229,0.017882188,0.026998597,0.023492286,0.013674614,0.011220196,0.007713885,0.01858345,0.010869565,0.020336606,0.025245442,0.024193548,0.021388499,0.032608696\nSRI-1052809-001.txt,CC(Cc1c[nH]c2ccccc12)NC(=O)CNC(=O)c1ccc2nc(sc2c1)-n1cccc1,0.978533616,0.990416793,0.996805598,1,0.997955582,0.98722239,0.967033767,0.947228473,0.916945538,0.875418307,0.827757823,0.775229071,0.722253101,0.670580448,0.62235775,0.578045,0.538038305,0.501826559,0.468834771,0.438168509,0.40972555,0.382994791,0.357950676,0.334644316,0.313356819,0.293973185,0.2767873,0.261185839,0.247156024,0.234246805,0.22216813,0.210958333,0.200885744,0.192405244,0.185611389,0.181107282,0.178776646,0.178918478,0.18123378,0.18554239,0.191673087,0.199714037,0.209269134,0.220303877,0.232584438,0.24596515,0.260314406,0.275513372,0.29144194,0.308295607,0.325592657,0.343472367,0.361916846,0.380834097,0.399553295,0.418149828,0.436520197,0.454865011,0.473432155,0.492113021,0.511347156,0.530435627,0.548438001,0.565643052,0.580923796,0.594823279,0.606592735,0.617411537,0.62908005,0.64188066,0.654664658,0.668139925,0.678477011,0.685683583,0.688779598,0.689079872,0.687936276,0.685971079,0.684709929,0.683701776,0.683420668,0.683890884,0.684662652,0.68513159,0.68534881,0.684079993,0.680817869,0.675147166,0.667329825,0.658013669,0.646931649,0.635173692,0.623689177,0.612070497,0.600192431,0.587956592,0.574528602,0.558562979,0.539307121,0.515696654,0.486774535,0.451434223,0.409473831,0.362767835,0.313142155,0.263446198,0.216542149,0.174116652,0.137668521,0.107165811,0.082526747,0.063192946,0.048321086,0.037122789,0.028721511,0.022411927,0.017777488,0.014460421,0.011925343,0.010008702,0.008529054,0.007465957,0.006521692,0.005868756,0.005199209,0.004740493,0.004363554,0.00401728,0.003672285,0.003529176,0.003212291,0.003066626,0.002880073,0.002726742,0.002558077,0.002357469,0.002161972,0.002053362,0.001947308,0.001808032,0.001693033,0.001538424,0.001459203,0.001364649,0.001236873,0.001121874,0.001046486,0.001017098,0.000971098,0.000861211,0.000734713,0.000624825,0.000544326,0.00049066,0.000453605,0.000420383,0.000390995,0.000362884,0.00033094,0.000297718,0.000261941,0.000221053,0.000172498,0.000122665,0.000100943,9.46E-05,8.18E-05,0.000102221,5.88E-05,8.56E-05,8.82E-05,6.9E-05,6.13E-05,8.18E-05,6.9E-05,5.11E-05,1.53E-05,0,2.94E-05,2.81E-05,5.24E-05\nSRI-0000027.txt,OC(C(=O)NC1=CC(Cl)=CC=C1O)C1=CC=CC=C1,1,0.954658753,0.90427959,0.849102411,0.791766126,0.733230336,0.676373852,0.622875978,0.576095327,0.536031897,0.503501352,0.478695611,0.460535123,0.448372153,0.441510991,0.439399864,0.44122311,0.446332997,0.453913861,0.463054081,0.472985973,0.483013825,0.493041678,0.502613719,0.51204182,0.52144593,0.530034378,0.53694352,0.53996627,0.538382925,0.531111532,0.519094902,0.503331022,0.485160937,0.465968875,0.447561289,0.430727451,0.414613316,0.395006225,0.367410439,0.330369759,0.286453523,0.240896365,0.198431529,0.161741104,0.131782295,0.108646264,0.091560531,0.07981259,0.072733118,0.069067434,0.067498483,0.067865531,0.069907086,0.073373653,0.078145279,0.083934085,0.090636913,0.09813861,0.106367207,0.115293914,0.124626055,0.134663503,0.145084793,0.155491689,0.166347199,0.177178719,0.187926274,0.198510696,0.209181483,0.219751511,0.229887319,0.239389788,0.24746245,0.254023736,0.258512279,0.261239951,0.261849299,0.260692977,0.25780937,0.254311617,0.249513601,0.243700805,0.236271078,0.226617471,0.214425714,0.199031281,0.180506143,0.159704346,0.137950144,0.115963238,0.095036693,0.076396402,0.059951204,0.046322441,0.035548497,0.026878483,0.020324394,0.015236098,0.011498444,0.00875158,0.006796389,0.005397767,0.004215057,0.003622502,0.002874011,0.002319841,0.002118324,0.001852034,0.001484986,0.001245085,0.000995588,0.000914022,0.000825259,0.000914022,0.000820461,0.000568565,0.000549373,0.000546974,0.000347856,0.000319068,0.000326265,0.000403033,0.000419826,0.000427023,0.000280684,0.000261492,0.000259093,0.000237502,0.000220709,0.000151137,0.000191921,0.000182325,0.000388639,0.000436619,0.000455811,0.000323866,0.000455811,0.000405432,0.000448614,0.000518186,0.000475004,0.000530181,0.00060455,0.000614146,0.000448614,0.000155936,0,0.000165532,0.00058056,0.000906825,0.001117938,0.001223494,0.001247484,0.001197105,0.001105943,0.000993189,0.000880436,0.000777279,0.000688515,0.000609348,0.000520585,0.000453412,0.000417427,0.000422225,0.000498994,0.000582959,0.000561368,0.000657328,0.00067652,0.00067652,0.000592555,0.000597353,0.000614146,0.000638136,0.000551772,0.000686116,0.000702909,0.000638136,0.000549373,0.0007245\nSRI-1052903-001.txt,Cc1cc(ccc1F)S(=O)(=O)C(CN1C(=O)c2ccccc2C1=O)c1cccnc1,0.991435508,1,0.999671386,0.985499924,0.955719315,0.90794711,0.84479168,0.77465321,0.701967985,0.633431507,0.572884447,0.520758112,0.474854897,0.433429042,0.395289324,0.360394665,0.329032603,0.301880902,0.279247639,0.26068097,0.245338821,0.23077713,0.214469679,0.195163629,0.173988589,0.152854625,0.134431724,0.11954142,0.108594478,0.10097475,0.096103053,0.093116777,0.091884476,0.091905014,0.092950416,0.094657153,0.096546682,0.098076789,0.099261852,0.100403784,0.101903084,0.103733051,0.105507564,0.10613193,0.104858552,0.102274828,0.099189967,0.096357729,0.093971172,0.091368963,0.087688491,0.082340304,0.075850185,0.06926559,0.062976746,0.05737183,0.052220812,0.04768389,0.043767227,0.04078095,0.038671662,0.037404445,0.036858125,0.036765703,0.036962871,0.037587237,0.038232141,0.03904546,0.039799217,0.040727551,0.041701068,0.04260681,0.043604974,0.044535361,0.045473964,0.046258529,0.046989694,0.0472875,0.047612006,0.047620221,0.047455914,0.047117032,0.046527581,0.045831331,0.044866028,0.043711773,0.042144697,0.040458498,0.038441632,0.036184467,0.033843095,0.031251155,0.028644839,0.025861892,0.023156991,0.020622559,0.018279133,0.016132875,0.014146816,0.012308634,0.010852465,0.009435319,0.008334463,0.007297276,0.006475742,0.005678854,0.005114049,0.004617021,0.004150801,0.003850941,0.003544919,0.003136206,0.00293493,0.002653555,0.002439956,0.002448171,0.00214215,0.00184229,0.001690306,0.001530107,0.001406877,0.001187117,0.001061833,0.000977626,0.000811265,0.000601774,0.000433359,0.000207437,0.000365583,0.000338883,0.000215653,0.000201276,0.000178684,8.01E-05,0.000108853,0.000119122,6.16E-05,4.93E-05,6.57E-05,0.000119122,9.24E-05,9.04E-05,5.96E-05,0.000154038,0.000102692,0.000102692,0.000115015,0.000119122,0.000115015,0.000102692,9.04E-05,7.8E-05,6.37E-05,5.55E-05,4.72E-05,3.9E-05,3.08E-05,2.88E-05,2.88E-05,2.46E-05,2.26E-05,1.64E-05,1.44E-05,2.05E-05,2.46E-05,2.46E-05,2.26E-05,9.86E-05,5.34E-05,8.01E-05,6.37E-05,1.85E-05,0,7.39E-05,8.01E-05,0.00012323,3.29E-05,3.08E-05,4.31E-05,5.34E-05,5.34E-05\nSRI-1053204-001.txt,O=C(NCCc1c[nH]c2ccccc12)C1Cc2ccccc2C(=O)O1,0.975936748,0.99233359,1,0.998363044,0.985540223,0.957957516,0.914878292,0.857284727,0.788559861,0.713014345,0.638451003,0.570408202,0.511286811,0.462723786,0.424364452,0.394817398,0.371872732,0.354139043,0.339924809,0.32764764,0.316543622,0.306258082,0.295617869,0.284486569,0.272536791,0.259632121,0.246209083,0.231776588,0.217385017,0.203350849,0.189895071,0.177593347,0.166808536,0.15745879,0.149715988,0.143479186,0.13892572,0.135662722,0.133712016,0.132552505,0.132628897,0.133531951,0.135114341,0.137479743,0.140112513,0.143271838,0.146734,0.15049627,0.154427693,0.158323648,0.162336918,0.166290167,0.170147926,0.173730131,0.176900369,0.179462205,0.181396542,0.183213563,0.185314323,0.187731561,0.190574408,0.193035298,0.194653156,0.194879602,0.193381787,0.189715006,0.184296682,0.178297238,0.173269056,0.170199763,0.168535525,0.166153754,0.160418952,0.149836032,0.135815504,0.120275336,0.104658777,0.09024538,0.077542602,0.066113921,0.055997534,0.047280743,0.039857148,0.033252031,0.027697294,0.022903742,0.01898596,0.016126744,0.013526712,0.011404126,0.009688051,0.008460334,0.007426323,0.0067579,0.006144041,0.005642041,0.005011813,0.004430694,0.00402964,0.003612216,0.003110216,0.002777369,0.002381771,0.001945249,0.001841575,0.001527826,0.001375043,0.001102217,0.001107674,0.000889413,0.000823934,0.000722989,0.000570206,0.000630228,0.000578391,0.000624772,0.000455619,0.000463804,0.000444706,0.000414695,0.000450163,0.000458348,0.00031375,0.000392869,0.000381956,0.000417424,0.0003765,0.000349217,0.000384685,0.000390141,0.000368315,0.000226446,0.000398326,0.000289196,0.000281011,0.000425609,0.000417424,0.000163696,0.000158239,0.000256456,0.000251,0.000122772,0.000150054,0.000226446,0.000220989,0.000253728,0.000245543,0.000201891,0.00014187,9E-05,5.18E-05,2.46E-05,8.18E-06,2.73E-06,0,2.73E-06,2.73E-06,8.18E-06,2.18E-05,3.27E-05,4.09E-05,5.46E-05,5.73E-05,6.55E-05,9E-05,0.000128228,0.000158239,0.000120043,0.000144598,0.000193706,7.64E-05,0.000128228,1.91E-05,9E-05,7.91E-05,0.000128228,0.000120043,0,6E-05,0.000155511,3E-05\nSRI-0000557.txt,[O-][N+](=O)C1=CC=C(S1)\\C=C\\C1=NC=CC=C1,0.093511629,0.092910483,0.092242542,0.091574602,0.089971546,0.088168107,0.084294054,0.080553589,0.076011595,0.07060128,0.064523024,0.05797721,0.051297808,0.044484818,0.037337858,0.031326396,0.025448522,0.019904618,0.014761479,0.010019103,0.006011462,0.003005731,0.001068704,0,0.000133588,0.001469468,0.003874053,0.0078149,0.012757658,0.018802517,0.025869324,0.033376972,0.04166611,0.0504896,0.05897912,0.067769213,0.07640568,0.085095582,0.092970597,0.100291222,0.106937227,0.112254031,0.116542207,0.119374274,0.120997368,0.121785538,0.121077521,0.119507862,0.117463965,0.114378081,0.110757845,0.106850395,0.102301722,0.097933393,0.093444835,0.089236812,0.085663331,0.082584127,0.080566948,0.07897725,0.078476295,0.078836983,0.079845572,0.081568858,0.083325541,0.085796919,0.088301695,0.091120403,0.093772126,0.096610871,0.099095609,0.101172903,0.103483976,0.105140468,0.10623589,0.107598488,0.108139519,0.108553642,0.108660513,0.108660513,0.108400016,0.108253069,0.107444862,0.106309363,0.104933406,0.103630923,0.10210134,0.100484925,0.098781677,0.097285491,0.095208197,0.09349827,0.091607999,0.089951508,0.088562192,0.086825547,0.085175735,0.083953404,0.083118479,0.081869431,0.081121338,0.080573627,0.080566948,0.080774009,0.081114659,0.082049775,0.083579358,0.085262567,0.087486808,0.090024981,0.093344644,0.097419079,0.101526911,0.10690383,0.113075597,0.119567976,0.127556541,0.136233084,0.145490736,0.155623389,0.167218831,0.17973603,0.192440253,0.206841044,0.222143554,0.238427936,0.255406976,0.273160827,0.291128418,0.308875589,0.326596043,0.344790734,0.363820351,0.384212565,0.404758406,0.426072378,0.447914023,0.469889256,0.491717541,0.514240485,0.537598354,0.560755841,0.583191953,0.606356119,0.629226392,0.650867654,0.666377226,0.675507969,0.687417342,0.711897351,0.740999506,0.76843181,0.790320211,0.805235315,0.815708618,0.824906154,0.835392816,0.8458394,0.85690717,0.869918645,0.884205886,0.900490268,0.920060916,0.942196455,0.963490388,0.980035267,0.98916601,0.995117357,0.998416982,1,0.999959924,0.998016218,0.994823463,0.990675555,0.984704169,0.977971332,0.969535247,0.960364428,0.950305249,0.939624885,0.926927341\nSRI-1053214-001.txt,CC(C)[C@H](NC(=O)CCCn1nnc2ccccc2c1=O)C(O)=O,0.98450464,0.987853781,0.992497924,0.99691879,1,0.999553448,0.994060856,0.982807741,0.965570828,0.942528736,0.916405434,0.887468853,0.854959855,0.816779644,0.770159598,0.715769543,0.655172414,0.592476489,0.531834704,0.476596201,0.428189945,0.386928525,0.353392457,0.326643982,0.305923961,0.289508703,0.276125535,0.264425868,0.253851512,0.243750502,0.234042458,0.224821156,0.216667113,0.209424037,0.203257152,0.196965231,0.190932312,0.184854737,0.178093937,0.171292947,0.164951906,0.159664729,0.15629326,0.154788379,0.155221535,0.157784744,0.162241335,0.168510927,0.175651296,0.183680304,0.192638141,0.202038064,0.211737177,0.221713153,0.231965991,0.241763345,0.251725924,0.261742089,0.271159875,0.280305263,0.28901303,0.29697059,0.304066304,0.310175138,0.315051487,0.318887371,0.321602408,0.323143013,0.323585099,0.323281444,0.321834615,0.31935625,0.315681126,0.311452277,0.306616117,0.301351267,0.296367745,0.29226393,0.288628996,0.285253061,0.2823728,0.279528262,0.276054086,0.271119685,0.264515178,0.256495101,0.247180023,0.237257634,0.22700033,0.217636131,0.209035537,0.201917495,0.197032214,0.193897418,0.192178192,0.190302673,0.186788307,0.179978387,0.16956479,0.155891363,0.139846743,0.122694674,0.105600657,0.089886486,0.075677196,0.063495253,0.053188829,0.045155356,0.038434745,0.032870705,0.028753494,0.02541775,0.02289473,0.020769141,0.018884691,0.017603087,0.016397396,0.015383722,0.014633515,0.013883307,0.013347444,0.012807116,0.012548116,0.011949736,0.011954202,0.011619287,0.011476391,0.011186132,0.011056632,0.010748511,0.010507373,0.010668131,0.010154596,0.01006082,0.009694648,0.009225768,0.008801543,0.008551474,0.008292474,0.00778787,0.007377042,0.007037662,0.006792059,0.006448213,0.006117765,0.005840902,0.005613161,0.005447936,0.005180005,0.004603953,0.00393859,0.003358072,0.002902589,0.002563209,0.002290813,0.00205414,0.001817467,0.001576329,0.001317329,0.001049398,0.000763604,0.000455483,0.000116104,9.82E-05,8.48E-05,0.000125035,0.000196483,0.000200948,0.000236673,1.34E-05,0.000111638,0,0.000156293,0.000254535,0.000133966,0.000156293,0.000276862,0.000187552,1.34E-05,6.7E-05,4.47E-06\nSRI-0000580.txt,C(N1CCN(CC1)C1=CC=CC=C1)C1=CC=CC=C1,0.562834859,0.53055273,0.515632418,0.514547304,0.524584605,0.542217701,0.566768396,0.594031875,0.624957613,0.658731773,0.694811801,0.728992879,0.764665988,0.799525263,0.833570702,0.865852831,0.895557816,0.922550017,0.947100712,0.967175314,0.982366904,0.993760597,1,1,0.995116989,0.983560529,0.966687013,0.94335707,0.914370973,0.880705324,0.841844693,0.798087487,0.750708715,0.699681248,0.647053238,0.594126823,0.541593761,0.490186504,0.439850797,0.391386911,0.347602577,0.307548321,0.272797558,0.243024754,0.215788403,0.19190234,0.172356731,0.157178705,0.145961343,0.138351984,0.131339437,0.124055612,0.118168871,0.113787725,0.111359783,0.110301797,0.110274669,0.109528654,0.110125466,0.110342489,0.109799932,0.109542218,0.108565615,0.107371991,0.105690064,0.103574093,0.101132587,0.098162089,0.095720583,0.092655137,0.088233299,0.084218379,0.080271278,0.075320448,0.070790098,0.065839268,0.060603594,0.056371651,0.051963377,0.047256697,0.042346558,0.038087487,0.034316718,0.030233978,0.026571719,0.023926755,0.020495083,0.017416073,0.015232282,0.012587318,0.010362835,0.008992879,0.007677179,0.006768396,0.004937267,0.004177687,0.00307901,0.002604273,0.001831129,0.001776874,0.000596812,0.000515429,0.001057986,0.000800271,0.000664632,0.000434045,0.000325534,0.000162767,0.000705324,0,0.000732452,0.000881655,0.000447609,0.000840963,0.001736182,0.001573415,0.001437776,0.002088844,0.002482197,0.001478467,0.002021024,0.002604273,0.002889115,0.002794168,0.002848423,0.00307901,0.003892845,0.003919973,0.003648694,0.004340454,0.003784334,0.004231943,0.004584605,0.005072906,0.005452696,0.005615463,0.005330621,0.006212275,0.006836216,0.006415734,0.005723974,0.006741268,0.006673449,0.007243133,0.007500848,0.007650051,0.007812818,0.007934893,0.008111224,0.008368939,0.008667345,0.008897932,0.009047135,0.00910139,0.00910139,0.009114954,0.00910139,0.009060699,0.009020007,0.008992879,0.008938623,0.008897932,0.008816548,0.008708037,0.008680909,0.008911495,0.00910139,0.008626653,0.008314683,0.008314683,0.008328247,0.008043405,0.00778569,0.007595795,0.007636487,0.007310953,0.007283825,0.006266531,0.006904035,0.006985419,0.006171584\nSRI-1053162-001.txt,O=C(NCCc1c[nH]c2ccccc12)[C@@H](c1ccccc1)n1cnnn1,0.999429684,1,0.992300739,0.974335796,0.944109067,0.899624447,0.838743252,0.763261977,0.677001737,0.584610603,0.494072995,0.410978006,0.337777993,0.276440546,0.226537927,0.187471306,0.157501219,0.134260857,0.116638103,0.103292717,0.093369225,0.085784027,0.079995323,0.07548983,0.072239031,0.069929252,0.068360884,0.067334316,0.067020643,0.067362832,0.068375142,0.069812338,0.071682973,0.073847321,0.076282569,0.079125592,0.082784167,0.08665661,0.090799953,0.094749389,0.098721637,0.102956231,0.107530163,0.112454838,0.117045879,0.121371723,0.125332565,0.129356142,0.133550814,0.137882361,0.141731992,0.144922908,0.147552063,0.149821919,0.151923532,0.153443423,0.154335967,0.155194292,0.156414768,0.15784626,0.159785333,0.161533351,0.162519997,0.162388824,0.16070069,0.156962271,0.151498647,0.145587325,0.140850854,0.138298691,0.137582945,0.136160008,0.131346544,0.122013328,0.109275328,0.09504025,0.0811274,0.068785769,0.058348993,0.049292381,0.041327923,0.034589644,0.028698283,0.023756498,0.019493389,0.01586333,0.012960423,0.010582207,0.008566141,0.006906522,0.00558339,0.004596744,0.003715606,0.003142439,0.002677632,0.002255598,0.002033175,0.001805049,0.001619696,0.001237585,0.001189108,0.001052232,0.000798442,0.000767075,0.000721449,0.000604535,0.000476214,0.00047051,0.000453401,0.000436291,0.000410627,0.00032508,0.000285158,0.000313674,0.000402073,0.00037926,0.000262345,0.000347893,0.000250939,0.000228126,0.000239533,0.000265197,0.000293713,0.000290861,0.000347893,0.000384963,0.000233829,0.000153985,0.000316525,0.000239533,0.000276603,0.000230978,0.00030797,0.000333635,0.000319377,0.000285158,0.000319377,0.000222423,0.000156837,0.000305119,0.000345041,0.000171095,0.000202462,0.000296564,0.000296564,0.000265197,0.000236681,0.000176798,0.000116915,5.7E-05,3.14E-05,8.55E-06,0,5.7E-06,1.14E-05,2E-05,4.56E-05,5.99E-05,7.13E-05,7.98E-05,8.84E-05,9.41E-05,9.41E-05,9.13E-05,0.000102657,0.000119766,0.000151134,0.00016254,9.13E-05,0.000136876,0.000102657,0.000213868,9.7E-05,0.000173946,7.13E-05,0.000213868,0.000156837,5.99E-05,0.000168243,0.000233829,0.000111212\nSRI-1053196-001.txt,CSCC[C@H](NC(=O)Cn1nnc2ccccc2c1=O)C(O)=O,0.989978642,0.99411874,0.99814276,1,0.998723147,0.993615737,0.983362224,0.967304835,0.946372191,0.921144679,0.894485544,0.86488578,0.831919767,0.793304649,0.748305268,0.694832229,0.635052312,0.573569925,0.514293011,0.459891351,0.41287996,0.373723147,0.341801832,0.316148703,0.295773231,0.2790542,0.265179069,0.252696867,0.241487649,0.231176097,0.221746734,0.213249861,0.206010493,0.199479199,0.193833963,0.188699468,0.183460503,0.178082245,0.172920665,0.168343342,0.164493438,0.161935863,0.160887296,0.161634062,0.163858881,0.167275429,0.171883706,0.177803659,0.184331084,0.191450505,0.198817557,0.206540581,0.214267474,0.221955674,0.229698044,0.237208259,0.244784251,0.25201201,0.258756113,0.265542778,0.271721971,0.27673652,0.280996564,0.283848202,0.28560871,0.286239398,0.286185229,0.28530304,0.283511577,0.281155203,0.278137188,0.274171207,0.269597753,0.26470702,0.259568656,0.254453507,0.249605336,0.245140222,0.241189717,0.237893116,0.234387575,0.230417724,0.225832663,0.219901102,0.212410233,0.20390949,0.194766452,0.185495728,0.176573237,0.168881168,0.162558813,0.158279422,0.155524516,0.15431344,0.153086888,0.150471275,0.145224571,0.13682056,0.125642296,0.112111527,0.097837863,0.083486814,0.069859314,0.057814338,0.047564694,0.038591902,0.031503436,0.025490621,0.020859128,0.016986009,0.01383257,0.011422027,0.00954931,0.008090602,0.006616418,0.005683929,0.004735962,0.003772519,0.003107008,0.002770383,0.002313812,0.002019749,0.001725686,0.001536092,0.001207206,0.000959574,0.000874451,0.000820281,0.000580388,0.000650034,0.000541695,0.000510741,0.000572649,0.000425618,0.000402402,0.000379187,0.000526218,0.000270848,0.000174116,0.000371448,0.000394664,0.000317279,0.000263109,0.000131555,0.000189593,0.00025924,0.000228286,0.000174116,0.000166378,0.000131555,0.000100601,7.35E-05,3.87E-05,1.16E-05,0,3.87E-06,1.93E-05,2.71E-05,3.1E-05,3.1E-05,2.71E-05,2.32E-05,3.87E-06,7.74E-06,3.1E-05,6.58E-05,0.000116078,0.000147032,0.00020894,0.000274717,9.29E-05,0.000147032,9.67E-05,3.48E-05,0.000100601,0.000174116,0.000220547,4.26E-05,8.51E-05,0.000147032,0.000185724\nSRI-0000595.txt,CC1CC2C3CCC4=CC(=O)C=CC4(C)C3C(=O)CC2(C)C11OCOC11COCO1,1,0.879807692,0.879807692,0.759615385,0.759615385,0.579326923,0.579326923,0.519230769,0.579326923,0.579326923,0.579326923,0.639423077,0.639423077,0.699519231,0.639423077,0.699519231,0.675480769,0.6875,0.717548077,0.705528846,0.717548077,0.717548077,0.705528846,0.6875,0.675480769,0.657451923,0.651442308,0.639423077,0.627403846,0.591346154,0.585336538,0.573317308,0.549278846,0.525240385,0.506009615,0.471153846,0.452524038,0.435096154,0.411057692,0.409855769,0.387620192,0.356370192,0.337139423,0.354567308,0.325120192,0.296274038,0.285456731,0.292067308,0.277043269,0.2421875,0.233774038,0.221153846,0.189903846,0.174278846,0.155649038,0.153245192,0.142427885,0.126201923,0.120192308,0.0859375,0.066706731,0.067307692,0.057091346,0.0546875,0.050480769,0.045673077,0.049278846,0.075721154,0.060697115,0.047475962,0.079927885,0.051682692,0.052283654,0.0625,0.050480769,0.060096154,0.034254808,0.048076923,0.031850962,0.048677885,0.041466346,0.064903846,0.051682692,0.022836538,0.045673077,0.061298077,0.052283654,0.033653846,0.030048077,0.040865385,0.049278846,0.021634615,0.013221154,0.041466346,0.035456731,0.036057692,0.030649038,0.045072115,0.033052885,0.051682692,0.041466346,0.017427885,0.0234375,0.011418269,0.030048077,0.039663462,0.032451923,0.030649038,0.021033654,0.0390625,0.041466346,0.012019231,0.0078125,0,0.012019231,0.034254808,0.053485577,0.052283654,0.043870192,0.006009615,0.036057692,0.030048077,0.027644231,0.053485577,0.0625,0.049278846,0.009615385,0.034855769,0.036057692,0.019831731,0.0546875,0.036658654,0.046274038,0.042668269,0.036057692,0.016826923,0.042668269,0.024639423,0.011418269,0.054086538,0.024038462,0.021033654,0.021033654,0.045673077,0.039663462,0.025240385,0.025240385,0.027644231,0.027644231,0.025240385,0.027043269,0.028245192,0.029447115,0.030048077,0.03125,0.030649038,0.029447115,0.028245192,0.027644231,0.027043269,0.026442308,0.025841346,0.024639423,0.027043269,0.027644231,0.036658654,0.041466346,0.027644231,0.027043269,0.021033654,0.050480769,0.032451923,0.028245192,0.03125,0.033653846,0.033653846,0.0390625,0.037860577,0.042067308,0.046875,0.052283654\nSRI-1052826-001.txt,CS(=O)(=O)N1CCc2ccc(NS(=O)(=O)CCN3C(=O)c4ccccc4C3=O)cc12,1,0.964440825,0.92616721,0.88165038,0.826818675,0.767100977,0.705754615,0.642779587,0.588490771,0.540445168,0.502714441,0.474484256,0.451954397,0.429967427,0.406351792,0.381378936,0.358034745,0.338219327,0.323018458,0.310260586,0.298045603,0.284744843,0.265743757,0.240499457,0.214440825,0.188925081,0.167480999,0.148751357,0.134093377,0.121905537,0.111237785,0.102117264,0.093485342,0.085043431,0.078067318,0.071416938,0.065228013,0.06009772,0.055781759,0.050597177,0.048805646,0.046389794,0.046606949,0.046254072,0.047584148,0.048561346,0.0497557,0.052795874,0.054913138,0.056677524,0.060423453,0.062703583,0.064847991,0.069163952,0.07247557,0.075570033,0.079261672,0.082681868,0.085423453,0.087160695,0.091422367,0.09611835,0.098615635,0.101710098,0.104071661,0.105808903,0.1084962,0.110912052,0.11237785,0.113246471,0.115119435,0.115309446,0.115119435,0.115743757,0.114413681,0.112893594,0.111482085,0.109147666,0.107654723,0.106134636,0.102497286,0.09907709,0.094896851,0.089386536,0.083876221,0.079180239,0.073507058,0.067508143,0.062404995,0.060070575,0.058849077,0.057736156,0.057709012,0.056053203,0.055456026,0.05572747,0.054614549,0.055781759,0.055591748,0.055781759,0.056188925,0.05640608,0.057709012,0.0584962,0.060423453,0.059310532,0.061264929,0.063680782,0.062567861,0.062432139,0.062079262,0.061210641,0.06194354,0.062187839,0.062160695,0.061102063,0.060504886,0.060206298,0.058414767,0.057491857,0.055347448,0.054343105,0.052361564,0.051004343,0.049294245,0.048452769,0.045168295,0.043729642,0.042128122,0.039060803,0.037160695,0.034934853,0.0330076,0.031541802,0.02937025,0.02567861,0.022176982,0.019923996,0.018023887,0.015336591,0.01354506,0.011862106,0.008550489,0.006948969,0.005646037,0.004343105,0.003555917,0.003013029,0.002442997,0.001872964,0.001465798,0.00135722,0.001194354,0.001085776,0.00092291,0.000868621,0.000895765,0.00092291,0.000895765,0.000950054,0.001031488,0.001085776,0.001248643,0.00135722,0.001330076,0.00160152,0.001520087,0.001520087,0.001384365,0.001547231,0.001031488,0,0.000407166,0.001492942,0.001275787,0.001112921,0.000624321,0.00067861,0.000434311,0.000950054,0.001248643\nSRI-1052836-001.txt,COc1cc(C)cc2oc(=O)c(CC(=O)N[C@H](Cc3c[nH]c4ccccc34)C(O)=O)c(C)c12,1,0.986378862,0.962496332,0.926470142,0.880324236,0.822844247,0.757248247,0.686389994,0.61304229,0.540261291,0.472094882,0.411295627,0.35840999,0.313903478,0.2774725,0.248105083,0.224769017,0.206168979,0.191131081,0.178258802,0.166864001,0.156703806,0.146988878,0.138225204,0.130635417,0.124361193,0.119584687,0.116224941,0.113978364,0.112446239,0.111337118,0.110169303,0.109124948,0.10842264,0.108392281,0.109499378,0.111792505,0.115457867,0.120337594,0.12631025,0.133035814,0.140471781,0.148610057,0.157023589,0.165868221,0.174929415,0.184217291,0.193632675,0.202981268,0.21235415,0.221569163,0.230543328,0.239525588,0.248123299,0.256095611,0.263456693,0.270186304,0.276581965,0.282967506,0.289395549,0.295631318,0.30107775,0.305908902,0.30947509,0.311296639,0.311551656,0.310598379,0.309588431,0.309995244,0.312017163,0.314451967,0.314850684,0.310738031,0.302460103,0.292127873,0.281779451,0.273159477,0.266954067,0.26312679,0.261485372,0.262007549,0.263984942,0.267506603,0.272157625,0.277628343,0.283880304,0.290306324,0.297367862,0.304340346,0.310833156,0.316955585,0.32247083,0.327354605,0.331845735,0.335972555,0.339814,0.343040165,0.3456551,0.347470577,0.34844207,0.347998826,0.346082152,0.342572634,0.3372274,0.330564579,0.322294747,0.31318093,0.303281824,0.293413077,0.282870356,0.272580629,0.262473056,0.252397867,0.242189097,0.231913537,0.220970076,0.209231205,0.196761691,0.183257941,0.16891628,0.153712418,0.138109839,0.122515357,0.107123268,0.092411225,0.078561381,0.065844946,0.054486576,0.044812127,0.036501816,0.029620409,0.023941225,0.019138407,0.015343514,0.012204378,0.009725047,0.007771942,0.006179099,0.004940445,0.003861684,0.003159375,0.002507666,0.002159547,0.001671777,0.001374257,0.001181983,0.001107097,0.001090905,0.001042331,0.000902679,0.000740763,0.000597063,0.000493842,0.000423004,0.000376453,0.000342046,0.000313711,0.000289424,0.000263113,0.000236801,0.000212514,0.000186203,0.000159892,0.000141676,0.000125484,9.71E-05,8.91E-05,0.000129532,0.000109293,0.0001437,8.3E-05,6.27E-05,0,6.07E-06,2.02E-05,0.000119413,4.86E-05,0.000123461,0.000101197,5.67E-05,1.42E-05\nSRI-31204.txt,COC(=O)\\C=C(\\O\\N=C(/N)C1=CC=CN=C1Cl)C(=O)OC,1.000000136,0.902073385,0.79919375,0.684961135,0.562940559,0.442887447,0.336273748,0.248761469,0.179520437,0.127558733,0.091421369,0.068216613,0.05365178,0.047276674,0.053648089,0.065585605,0.084163207,0.112325977,0.149068388,0.191899733,0.236311921,0.280914586,0.325243673,0.369078973,0.411829273,0.448384203,0.481930326,0.514956946,0.544790083,0.568719915,0.589424785,0.608524155,0.626373554,0.642837074,0.656422838,0.664043431,0.671386147,0.677399756,0.678489966,0.678262453,0.677966499,0.675773854,0.671995224,0.667921364,0.662590208,0.655024406,0.648286976,0.6422701,0.634195125,0.623088481,0.610349278,0.599625173,0.590108702,0.57677188,0.556347257,0.531826084,0.505670563,0.481225029,0.45884181,0.43570732,0.414750896,0.392623667,0.369768979,0.349326373,0.330640432,0.311956846,0.294092969,0.276607409,0.258892504,0.242434526,0.227633044,0.212467624,0.198085457,0.186217971,0.174989837,0.16350451,0.152758154,0.143224898,0.134960595,0.128306446,0.121840881,0.114682396,0.10905562,0.105808203,0.101848602,0.100215062,0.09822353,0.094904238,0.09270413,0.091730938,0.090680181,0.089579082,0.08886969,0.087698463,0.084835739,0.083486608,0.080449012,0.07638621,0.074936136,0.071657625,0.069064705,0.066269003,0.061918632,0.058412368,0.059359113,0.064574451,0.0531143,0.027852372,0.019781526,0.025472409,0.041428458,0.043294043,0.028572995,0.025625363,0.02198567,0.018348778,0.017616007,0.016290486,0.011801702,0.012425261,0.012813447,0.011457839,0.011677331,0.010824901,0.006413024,0.004262878,0.004708253,0.004670041,0.006508115,0.002535219,9.75E-09,0.003350134,0.006409957,0.006983949,0.00580636,0.007100286,0.010061858,0.010159101,0.011135338,0.013671321,0.016482985,0.018844249,0.021720295,0.026606137,0.030792969,0.033483791,0.041067676,0.058327663,0.067111246,0.064830643,0.05683135,0.051792417,0.056532007,0.050912359,0.048308086,0.058982823,0.06674691,0.060594418,0.076087241,0.101330974,0.099116316,0.074905677,0.086108587,0.092471553,0.085213892,0.077461314,0.068708604,0.096256905,0.145829077,0.137698333,0.063428856,0.046159205,0.096471555,0.136801168,0.134766464,0.111500947,0.073973132,0.075642926,0.135057972,0.176160274,0.12774524\nSRI-1053321-001.txt,Cc1ccc(cc1)S(=O)(=O)NC1(CCCCC1)C(O)=O,0.718649444,0.763661866,0.807665863,0.85093646,0.890448382,0.92583493,0.954941741,0.977998001,0.99358275,1,0.996837213,0.984873626,0.963788377,0.933077255,0.894482082,0.848277885,0.796023139,0.738726268,0.678862497,0.616294313,0.554505368,0.493954034,0.435923763,0.381285467,0.331689295,0.286997736,0.247669163,0.213245203,0.184142976,0.159496154,0.138663012,0.121648133,0.107924386,0.097019646,0.088631384,0.082512078,0.077864156,0.074032141,0.070209294,0.066927329,0.063915806,0.062031885,0.061275566,0.061270982,0.060849277,0.059387061,0.056962257,0.054331185,0.051686362,0.049389903,0.046190446,0.042702212,0.039136055,0.03647748,0.035139025,0.034034341,0.031265757,0.026131957,0.020067656,0.014667999,0.010505954,0.007778623,0.005981793,0.004776267,0.003882436,0.00341031,0.002988605,0.002612737,0.002268956,0.00205352,0.001883921,0.001755576,0.00161348,0.001402627,0.001251364,0.001072597,0.000967171,0.000935085,0.00088008,0.000866329,0.000627974,0.000559217,0.000559217,0.000705897,0.000609639,0.000774654,0.000632557,0.000568385,0.00047671,0.000582136,0.000614222,0.000449207,0.00040337,0.000485877,0.000467542,0.000508796,0.000407954,0.000517964,0.000591304,0.000444624,0.000407954,0.00047671,0.0003667,0.000311695,0.000339197,0.0003667,0.000508796,0.00051338,0.0003667,0.000375867,0.000394202,0.000178766,0.000407954,0.000375867,0.00033003,0.000242939,0.000348365,0.000495045,0.000481294,0.00058672,0.000499629,0.000224604,0.000242939,0.000261274,0.00040337,0.000421705,0.000481294,0.000559217,0.00040337,0.000261274,0.00022002,0.000210852,0.000284192,0.000252106,0.000201685,0.000449207,0.000536299,0.000394202,0.000242939,0.000165015,0.000275025,0.000325446,0.00040337,6.88E-05,7.79E-05,0.000142096,0.000178766,0.000206269,0.000206269,0.000206269,0.000210852,0.000197101,0.000187934,0.000178766,0.000174182,0.000165015,0.00014668,0.000132929,0.000128345,0.00011001,9.63E-05,7.33E-05,6.42E-05,4.58E-05,7.33E-05,0.000174182,0.000192517,0.000288776,0.000242939,0.000224604,0,0.000151264,0.00014668,0.000123761,0.000233771,5.96E-05,0.000224604,0.000155847,9.17E-05,0.000114594,0.000119177\nSRI-1053249-001.txt,Cc1ccc(cc1)S(=O)(=O)N[C@@H](Cc1ccccc1)C(O)=O,0.929596077,0.933340185,0.942883991,0.953161936,0.965642298,0.978856799,0.989354986,0.997577342,1,0.996329305,0.984876738,0.966156195,0.938699399,0.903680973,0.860807259,0.811546537,0.756926601,0.697241106,0.635059539,0.570455313,0.505704259,0.442788553,0.382735989,0.326427533,0.27621243,0.232237509,0.195236907,0.164109416,0.138855037,0.119033286,0.103579661,0.091539783,0.082987064,0.076879029,0.072650388,0.069567005,0.068223531,0.067452685,0.067195736,0.066300087,0.064956612,0.063224045,0.062299029,0.062651416,0.063312141,0.062680782,0.060683924,0.057607882,0.054010601,0.051242897,0.048071417,0.044400722,0.040150058,0.036398608,0.034570602,0.033373956,0.03117888,0.027060361,0.022259092,0.017692748,0.013838519,0.011841661,0.009976948,0.008471963,0.007899335,0.006937613,0.006379667,0.006423716,0.005799698,0.005851087,0.00538858,0.0050729,0.004904048,0.004382809,0.003810181,0.003252235,0.002613535,0.002136344,0.001945468,0.00163713,0.001681178,0.001460936,0.001563716,0.001035136,0.001328791,0.001394864,0.001101208,0.001203988,0.001248036,0.001328791,0.000851601,0.001035136,0.001226012,0.000947039,0.000976405,0.000822236,0.000756163,0.000807553,0.00074148,0.000807553,0.000653384,0.000690091,0.000858943,0.000712115,0.000814894,0.000557946,0.00074148,0.000976405,0.000712115,0.000660725,0.000866284,0.000969063,0.001064501,0.001013112,0.001130574,0.000822236,0.000719456,0.000829577,0.001145257,0.000800211,0.000726798,0.00105716,0.001101208,0.000998429,0.001101208,0.001115891,0.000947039,0.001203988,0.001203988,0.001218671,0.001152598,0.000947039,0.001196646,0.001101208,0.000925015,0.000770846,0.001020453,0.000704773,0.000756163,0.000756163,0.000624018,0.000734139,0.000286314,0.000550604,0.000748822,0.000814894,0.000785529,0.000704773,0.000565287,0.00031568,0.000161511,8.81E-05,2.94E-05,7.34E-06,0,5.14E-05,0.000117462,0.000190876,0.000242266,0.000286314,0.000330363,0.000381752,0.000403776,0.000396435,0.000396435,0.000469849,0.000697432,0.000704773,0.000389094,8.08E-05,0.000234924,0.000102779,0.000308338,0.000271631,0.000690091,0.000697432,0.000293656,0.000491873,0.000234924,0.000499214,0.000638701\nSRI-1053047-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)CN1Cc2ccccc2C1=O,0.997246753,1,0.9935987,0.976872724,0.949271422,0.910725962,0.861649333,0.804863611,0.740368797,0.671262295,0.601054494,0.535045394,0.476057075,0.426567458,0.386301219,0.355671345,0.331924589,0.31389082,0.300055753,0.289042765,0.279957049,0.27238562,0.265502502,0.258894709,0.252699903,0.246849253,0.240792109,0.234803797,0.228994445,0.223191977,0.217582236,0.212192755,0.206665611,0.201730416,0.197194441,0.192589635,0.188535479,0.18447444,0.180812621,0.177529374,0.175457555,0.172938334,0.171327685,0.170274568,0.169730801,0.169496775,0.169875347,0.170370931,0.171265737,0.172594178,0.174067165,0.175574568,0.176964958,0.178197036,0.177770283,0.175746646,0.173213659,0.170591191,0.169180152,0.169937295,0.171128074,0.171086775,0.168643269,0.163012878,0.15562041,0.146892616,0.137139239,0.128831315,0.123070146,0.120117288,0.118251963,0.11528534,0.108505469,0.098559363,0.085853128,0.07300923,0.061259748,0.051155331,0.042751045,0.035441173,0.029328965,0.024056497,0.019830262,0.016161561,0.013119222,0.010544936,0.008473118,0.006862468,0.005465196,0.004728702,0.003565455,0.002856494,0.002429741,0.002051169,0.001686364,0.00139039,0.001218312,0.001066883,0.001115065,0.001066883,0.000832857,0.00053,0.000633247,0.000667662,0.000832857,0.000674546,0.000757143,0.00072961,0.000619481,0.000543766,0.000571299,0.000695195,0.000722727,0.000619481,0.000915455,0.000468052,0.000550649,0.000316623,0.000653896,0.000777792,0.000433636,0.000344156,0.000392338,0.000660779,0.000509351,0.000474935,0.000647013,0.000543766,0.000399221,0.000261558,0.000667662,0.000564416,0.000557533,0.000302857,0.000399221,0.000412987,0.000227143,0.00041987,0.000234026,0.000282208,0.000385455,0.000261558,0.000468052,0.000123896,0.000178961,0.000192727,0.000282208,0.000289091,0.000240909,0.000261558,0.000295974,0.000302857,0.000302857,0.000282208,0.000261558,0.000234026,0.000213377,0.000213377,0.00022026,0.000234026,0.000247792,0.000247792,0.000261558,0.000289091,0.000337273,0.000371688,0.000412987,0.000722727,0.000412987,0.000261558,2.75E-05,0.000289091,0.000557533,0.000543766,0.000295974,0.000447403,0.000123896,0.000502468,0.000185844,8.26E-05,0\nSRI-1053057-001.txt,CN1CCN(CC1)C(=O)c1c(-c2ccccc2)c(n[nH]c1=O)-c1ccccc1,0.996151996,1,0.995911496,0.984367484,0.963203463,0.931938432,0.88985089,0.837397787,0.778354978,0.715199615,0.651803752,0.593939394,0.542159692,0.497450697,0.46022126,0.42967773,0.404136604,0.382611833,0.362866763,0.343362193,0.323593074,0.302910053,0.281721982,0.260750361,0.240933141,0.222342472,0.205146705,0.187974988,0.170514671,0.152551708,0.134959115,0.119646465,0.107558923,0.099468494,0.095079365,0.093828764,0.095055315,0.098051948,0.102491582,0.107991823,0.114374699,0.121582492,0.129446849,0.137881193,0.146907167,0.156363636,0.166445406,0.176892737,0.187787398,0.199297739,0.211281866,0.223431938,0.236123136,0.248689274,0.261332371,0.274218374,0.286488696,0.298775854,0.311630592,0.324466089,0.338030303,0.351151996,0.364054834,0.376216931,0.386952862,0.395928331,0.403092833,0.409333814,0.41540885,0.421844637,0.428624339,0.433927369,0.436370851,0.43520683,0.430502646,0.424182299,0.416351611,0.408109668,0.399134199,0.389047619,0.378162578,0.365945166,0.353133718,0.33960558,0.325702261,0.311399711,0.297130832,0.282344877,0.267313612,0.252051467,0.236055796,0.219569505,0.202590188,0.18512506,0.167604618,0.15021164,0.133025493,0.116770082,0.101392496,0.087106782,0.074143819,0.062655123,0.052282347,0.043448773,0.035743146,0.029136604,0.023694084,0.019155844,0.015545936,0.012493987,0.010055315,0.008133718,0.006527177,0.00521645,0.004240019,0.003395863,0.002881193,0.002397787,0.002027417,0.001712362,0.001380471,0.001159211,0.001053391,0.000947571,0.000873016,0.000745551,0.000675806,0.000584416,0.000536316,0.00047138,0.00041847,0.000435305,0.000459355,0.000392015,0.000315055,0.000353535,0.000363155,0.00030784,0.00032708,0.00019721,0.000214045,0.00022607,0.000305435,0.000266955,0.0001924,0.00017797,0.00019721,0.000214045,0.00022607,0.00020202,0.000170755,0.000146705,0.000127465,0.00011063,0.00011063,0.00011063,0.00010582,9.62E-05,8.9E-05,7.7E-05,7.7E-05,7.94E-05,7.46E-05,6.97E-05,6.25E-05,7.7E-05,7.46E-05,0.000199615,0.00020202,3.61E-05,9.86E-05,0.00011544,0.00013468,0.000209235,0.000218855,2.89E-05,0,0.000137085,0.000161135,0.0001443,0.00017797\nSRI-0000026.txt,[O-][N+](=O)C1=CC=C(C=C1)N1CCNC1=O,0.68955467,0.700760893,0.710507482,0.718088162,0.723785443,0.726280947,0.725339247,0.721148685,0.712814645,0.699630854,0.68300986,0.663328342,0.639738773,0.613229935,0.584319763,0.553102429,0.52023712,0.485959262,0.450928045,0.415661403,0.38114812,0.348518236,0.318148431,0.289614939,0.264236141,0.24121159,0.220823799,0.202187568,0.185298189,0.169430554,0.154104397,0.139263214,0.124591538,0.110122327,0.096378224,0.082525826,0.06948329,0.05754725,0.046223315,0.036001168,0.027238655,0.019474343,0.013226168,0.007886732,0.004185854,0.00172331,0.000329595,0,0.000621522,0.002184743,0.004430696,0.007364089,0.011234474,0.015641627,0.02067501,0.026231037,0.032356791,0.038868642,0.045648878,0.052758708,0.060249927,0.067844733,0.075764424,0.083952501,0.092262998,0.101096138,0.110282416,0.119779454,0.129182322,0.139456263,0.150125717,0.160912883,0.17242045,0.183984518,0.19619836,0.209076099,0.222109218,0.236027535,0.250553248,0.265568645,0.280946596,0.297040239,0.313873115,0.331125048,0.348923167,0.36711209,0.385818949,0.40470473,0.424405081,0.443978303,0.463429104,0.483534386,0.50341366,0.524022751,0.544179827,0.564798335,0.584922451,0.605705757,0.62583929,0.646368336,0.666643124,0.686338767,0.706331045,0.725725344,0.745067849,0.764028967,0.781935381,0.799926547,0.817413905,0.833964272,0.850345133,0.865680707,0.881407087,0.895094688,0.90883879,0.921424603,0.933313558,0.944712829,0.95448296,0.963612736,0.972177492,0.979235528,0.986251189,0.990620674,0.994180298,0.997485663,0.999213681,0.999613903,1,0.999251349,0.997160776,0.994147338,0.989697809,0.984339539,0.977535761,0.969917413,0.961150192,0.951403603,0.941332128,0.930215367,0.917996817,0.905095535,0.89123372,0.876270117,0.859818629,0.843159966,0.831125048,0.824180015,0.811999134,0.786281323,0.755351207,0.72752399,0.704805492,0.687082709,0.672354531,0.658601011,0.644819241,0.62912582,0.6119916,0.592456046,0.570043601,0.545733631,0.517619196,0.485158818,0.450226479,0.418590088,0.393027658,0.370412747,0.34872541,0.327452421,0.306909248,0.286497914,0.266449134,0.247050127,0.228861203,0.211529226,0.194395005,0.177392623,0.161444944,0.146368336,0.131583656\nSRI-1053035-001.txt,COC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)C12CC3CC(CC(C3)C1)C2,0.996851672,1,0.991954272,0.968866532,0.931086593,0.875815942,0.803754207,0.719099158,0.627098011,0.532648164,0.44344553,0.363687882,0.295474103,0.239853638,0.195812024,0.161530227,0.135434085,0.115844487,0.10069753,0.089223622,0.080443285,0.073586925,0.068339712,0.064351829,0.061518334,0.059524393,0.058300043,0.057775321,0.058160117,0.059034653,0.060468891,0.062392869,0.064806588,0.06766457,0.071159214,0.075073636,0.079313385,0.083850475,0.088516997,0.093676758,0.098868001,0.10429362,0.109694752,0.115417713,0.121021737,0.126688728,0.132254273,0.137620424,0.142888626,0.14798542,0.152567986,0.156842717,0.160879573,0.164283266,0.167050296,0.168809862,0.169827821,0.170831788,0.172045644,0.174203998,0.176467296,0.178009977,0.178936984,0.178125415,0.175400362,0.170006227,0.162348793,0.154733337,0.149629547,0.148170821,0.148359721,0.146852022,0.139694822,0.126059063,0.108746755,0.090713831,0.074520929,0.061028594,0.049880014,0.040665906,0.033001476,0.026561396,0.021268706,0.016951998,0.013254462,0.010459446,0.008318583,0.006555519,0.00506531,0.003924916,0.003053878,0.002494176,0.00201493,0.001742075,0.001367774,0.001119406,0.001010963,0.000951495,0.000836056,0.000769591,0.000636662,0.000619171,0.000479246,0.000566699,0.000685636,0.000472249,0.000496736,0.000556205,0.000381298,0.000237874,0.000349814,0.00045126,0.000290346,0.00024487,0.000419777,0.000157416,0.000293844,0.000241372,0.0001889,0.000227379,0.000276353,8.05E-05,0.000262361,0.00030084,0.000195896,0.000269357,0.000223881,0.000251866,0.000272855,0.000171409,9.44E-05,0.000223881,0.000171409,3.5E-05,0.000269357,0.000216885,0.000262361,0.000220383,0.00015042,0.000272855,0.000185402,0.000167911,0.000213387,9.1E-05,7.35E-05,0.000167911,0.000185402,3.85E-05,3.15E-05,2.45E-05,3.15E-05,5.25E-05,4.55E-05,3.15E-05,1.75E-05,7E-06,0,7E-06,1.4E-05,2.45E-05,4.2E-05,6.65E-05,8.05E-05,8.05E-05,7.7E-05,9.44E-05,0.000108442,0.000146922,0.000111941,0.000153918,0.000108442,0.000171409,0.000171409,0.000220383,0.000293844,0.000216885,5.95E-05,0.000234376,0.000258863,0.000367305,0.000237874\nSRI-1017110-002.txt,CC1=CC=C(C=C1)S(=O)(=O)NC1CCCC(C1)C(O)=O,0.477959571,0.44164582,0.408358215,0.380114187,0.355905019,0.335730713,0.317573838,0.304460539,0.295382101,0.287110636,0.279141785,0.273392108,0.269357247,0.265120642,0.263405826,0.263103212,0.264111927,0.267642431,0.274098209,0.283176646,0.294676001,0.309100629,0.325845303,0.346120481,0.36911919,0.396354503,0.426918577,0.461517511,0.500050436,0.542012992,0.587102566,0.634492011,0.683798015,0.733830294,0.782218367,0.829567463,0.873789542,0.913169787,0.94696175,0.973369916,0.991446094,1,0.997367253,0.983850468,0.958844416,0.922853454,0.877844577,0.82550234,0.768207311,0.707381779,0.645618141,0.586073677,0.528879519,0.475609264,0.427150581,0.383886782,0.345252986,0.310966753,0.281270174,0.255749677,0.232438267,0.212173176,0.194389526,0.177917205,0.163109264,0.149945529,0.137598854,0.126079325,0.115709732,0.10515857,0.096049871,0.086446901,0.078094739,0.070751291,0.063216188,0.056709974,0.050859425,0.044807134,0.039642511,0.034235797,0.029383877,0.025399451,0.021515897,0.018288008,0.015100468,0.012084409,0.009764364,0.008039461,0.006899613,0.005467237,0.004105471,0.003631375,0.003268238,0.002612573,0.002077954,0.001936733,0.001462637,0.001684555,0.001351679,0.001301243,0.001119674,0.000978454,0.0010995,0.000827147,0.000726275,0.000867495,0.001069238,0.000917931,0.000665752,0.00095828,0.000736362,0.000605229,0.000847321,0.000433748,0.000675839,0.000615316,0.000171482,0.000837234,0.000675839,0.000726275,0.000484183,0.00035305,0.000615316,0.000534619,0.000685926,0.000605229,0.000756536,0.001008715,0.000484183,0.000776711,0.000696014,0.000665752,0.000776711,0.000161394,0.000332876,0.00035305,0.000464009,0.000554793,0.000272353,0.000413573,0.000252179,0.000464009,0.000413573,0.000373225,0.000121046,0.000110959,0.000100872,0.000171482,0.000272353,0.000332876,0.000342963,0.000332876,0.000312702,0.000262266,0.000221917,0.000191656,0.000151307,0.000131133,0.000110959,9.08E-05,9.08E-05,8.07E-05,8.07E-05,0.000100872,8.07E-05,9.08E-05,8.07E-05,0.000433748,1.01E-05,8.07E-05,0.000100872,0.000484183,0.000232005,0.000373225,0.000181569,0.000131133,0.000121046,0,0.000393399,0.000201743,0.000292527\nSRI-0000608.txt,CC12CC(Cl)[C@@]3(Cl)C(CCC4=CC(=O)C=CC34C)C1CCC21OC(C)(C)OCC1=O,0.629287399,0.658249321,0.684452964,0.713414886,0.740997669,0.768580452,0.798921513,0.826504296,0.854087079,0.878911583,0.90097781,0.924423175,0.946489401,0.963039071,0.979588741,0.990621854,0.99751755,1,0.998758775,0.993242218,0.982484933,0.967728144,0.949937249,0.928974334,0.904011916,0.875739563,0.845812244,0.812437077,0.777269029,0.741411411,0.70403674,0.667903295,0.632597333,0.598808424,0.568053621,0.540057096,0.514267194,0.492297508,0.473265388,0.455502076,0.440731495,0.426719442,0.41501055,0.404156725,0.393220152,0.381787088,0.371471128,0.358658925,0.345832931,0.332207036,0.318112234,0.302596919,0.286323077,0.269663076,0.252603125,0.235432843,0.217255789,0.199299397,0.181811913,0.165193286,0.148726365,0.132797308,0.117930188,0.103904343,0.091492091,0.079562537,0.068060517,0.058737536,0.050614406,0.043042933,0.037085052,0.031802949,0.027044919,0.023666028,0.020328511,0.018494256,0.016660001,0.014715415,0.014356838,0.012853577,0.012619123,0.012177799,0.011681309,0.011736474,0.011515812,0.011584769,0.01179164,0.01129515,0.011184818,0.01159856,0.011184818,0.010688328,0.011115861,0.011391689,0.01119861,0.011570977,0.010743494,0.011722683,0.010646954,0.010481457,0.010315961,0.010026342,0.010095299,0.009198858,0.00911611,0.009598808,0.008936822,0.008412749,0.008261043,0.00852308,0.00833,0.00911611,0.008164504,0.007061192,0.00743356,0.006812947,0.006054421,0.006219918,0.005557931,0.004923527,0.004316706,0.004165,0.003544388,0.003778841,0.00317202,0.00307548,0.003640927,0.003199603,0.002468659,0.002496242,0.002909984,0.002385911,0.001792881,0.001834255,0.001627384,0.001461887,0.001392931,0.001544636,0.001130894,0.001779089,0.001323974,0.001392931,0.001117103,0.001365348,0.001420513,0.001048146,0.001006772,0.001048146,0.001048146,0.001020563,0.000937815,0.000868858,0.000827483,0.000786109,0.000758527,0.000730944,0.000703361,0.00068957,0.000661987,0.000634404,0.000620613,0.00059303,0.000524073,0.00039995,0.000275828,0.000289619,0.000358576,0.000634404,0.000165497,0.000606821,0.000868858,0.000937815,0,0.000317202,0.000468907,0.000179288,0.000275828,0.00059303,5.52E-05,0.000372368,0.000248245\nSRI-1053343-001.txt,CC[C@H](C)[C@H](NS(=O)(=O)c1ccc(C)cc1)C(O)=O,0.711911912,0.75955956,0.806139473,0.850850851,0.892492492,0.929195863,0.959426093,0.981781782,0.995995996,1,0.995128462,0.978978979,0.951951952,0.915448782,0.870870871,0.817617618,0.758024691,0.693493493,0.625892559,0.555422089,0.486219553,0.418885552,0.355155155,0.296496496,0.245245245,0.200934268,0.164431098,0.134934935,0.111778445,0.094227561,0.080914248,0.071358025,0.064304304,0.059359359,0.056229563,0.054381048,0.053800467,0.053560227,0.053253253,0.052272272,0.051044378,0.050530531,0.051104438,0.052812813,0.054200868,0.053700367,0.051638305,0.049129129,0.046746747,0.044931598,0.04313647,0.040387054,0.037110444,0.034721388,0.033099766,0.032339006,0.030216884,0.025952619,0.020667334,0.015969303,0.012625959,0.010477144,0.008822155,0.007927928,0.007247247,0.006639973,0.00631298,0.005972639,0.005658992,0.005605606,0.005545546,0.005158492,0.004584585,0.004657991,0.004631298,0.003890557,0.003663664,0.003690357,0.003209877,0.003269937,0.00305639,0.003203203,0.002342342,0.002328996,0.002308976,0.001848515,0.001601602,0.001528195,0.001508175,0.001107774,0.000880881,0.000760761,0.000587254,0.000387054,0.000393727,0.0002002,0.000373707,0.000560561,0.000373707,0.00022022,0.000213547,0.00032032,0.000667334,0.000533867,0.00038038,0,0.00038038,0.00046046,0.000246914,0.000133467,0.000487154,0.0004004,0.000527194,0.00044044,0.000613947,0.000520521,0.000113447,0.000413747,0.000413747,0.000106773,0.000507174,0.000413747,0.000306974,0.000407074,0.000413747,0.000680681,0.000553887,0.000760761,0.000533867,0.000513847,0.000293627,0.000487154,0.00038038,0.000633967,0.000467134,0.000387054,0.000527194,0.000266934,0.000226894,0.00024024,0.00018018,0.000687354,0.000653987,0.000493827,0.000133467,6.67E-05,9.34E-05,0.000133467,0.000166834,0.0002002,0.000193527,0.000186854,0.00018018,0.00016016,0.000126793,0.000113447,0.0001001,9.34E-05,8.68E-05,8.68E-05,8.01E-05,9.34E-05,0.0001001,0.00012012,0.00018018,0.000286954,0.000293627,0.0004004,0.00014014,0.000413747,1.33E-05,0.00032032,0.00048048,0.000313647,0.000413747,0.000600601,0.000153487,1.33E-05,0.00014014,0,0.00026026\nSRI-1053353-001.txt,C[C@H](NC(=O)Cn1nnc2ccccc2c1=O)C(O)=O,0.975755287,0.983459215,0.99070997,0.996148036,1,0.999093656,0.992824773,0.980513595,0.963444109,0.941540785,0.915332326,0.887915408,0.856268882,0.818655589,0.772054381,0.716012085,0.65347432,0.587311178,0.522734139,0.463141994,0.411706949,0.36820997,0.33342145,0.305339879,0.28326284,0.265203927,0.250438066,0.23755287,0.225951662,0.215347432,0.205475831,0.196495468,0.188950151,0.18234139,0.176314199,0.17108006,0.166102719,0.161306647,0.156480363,0.151767372,0.148323263,0.146102719,0.145143505,0.145898792,0.148572508,0.152515106,0.1575,0.164116314,0.171246224,0.179010574,0.186918429,0.194924471,0.203595166,0.212137462,0.220430514,0.228353474,0.236623867,0.24439577,0.251616314,0.258617825,0.264358006,0.269169184,0.272892749,0.275513595,0.276925982,0.277333837,0.276797583,0.275113293,0.273413897,0.270453172,0.267386707,0.263496979,0.25929003,0.254848943,0.249984894,0.245060423,0.240936556,0.236608761,0.233225076,0.229977341,0.226880665,0.223564955,0.219909366,0.214750755,0.207922961,0.200354985,0.191540785,0.18271148,0.173927492,0.166329305,0.160120846,0.155287009,0.152439577,0.150861027,0.149418429,0.146548338,0.141646526,0.133602719,0.12244713,0.109380665,0.095113293,0.081110272,0.068149547,0.05586858,0.04555136,0.036888218,0.029705438,0.024101208,0.019524169,0.015475831,0.012635952,0.010634441,0.008685801,0.007122356,0.00597432,0.004750755,0.00391994,0.003489426,0.002839879,0.002190332,0.001933535,0.00168429,0.001586103,0.00147281,0.001155589,0.001049849,0.00097432,0.000989426,0.000536254,0.000438066,0.000558912,0.000536254,0.000528701,0.000581571,0.000317221,0.000513595,0.000490937,0,0.000226586,0,9.82E-05,0.000362538,0.000392749,0.000400302,0.000249245,8.31E-05,4.53E-05,9.82E-05,0.000151057,0.000173716,0.000173716,0.000166163,0.000166163,0.000143505,0.00010574,6.04E-05,3.02E-05,0,0,0,0,0,0,0,0,7.55E-06,0.000143505,0,0,0.000181269,7.55E-05,0,0,0,0.000120846,0,0.000219033,0.000120846,0,0,0\nSRI-1052985-001.txt,O=C(Cn1c2CCCc2c(=O)n(C2CCCCC2)c1=O)NCCc1ccccc1,1,0.943072702,0.88957476,0.838134431,0.789437586,0.743484225,0.698216735,0.654320988,0.611796982,0.569958848,0.529492455,0.490397805,0.453360768,0.417695473,0.383813443,0.352400549,0.322633745,0.294718793,0.269135802,0.245953361,0.2260631,0.208916324,0.19430727,0.182578875,0.173731139,0.167215364,0.163237311,0.161522634,0.161796982,0.163717421,0.167146776,0.172427984,0.179197531,0.187256516,0.196255144,0.205898491,0.21654321,0.228141289,0.240603567,0.253717421,0.266838134,0.279931413,0.293429355,0.307091907,0.320116598,0.332935528,0.345240055,0.356707819,0.367777778,0.377921811,0.386502058,0.393641975,0.399670782,0.404458162,0.407846365,0.409526749,0.409478738,0.40733882,0.403278464,0.397359396,0.388799726,0.378333333,0.36611797,0.351824417,0.33670096,0.320679012,0.303737997,0.285967078,0.267016461,0.247215364,0.22648834,0.204869684,0.182921811,0.161097394,0.139705075,0.119643347,0.101351166,0.084615912,0.07042524,0.058292181,0.048285322,0.040130316,0.033696845,0.028806584,0.024773663,0.021474623,0.018868313,0.017174211,0.015507545,0.014334705,0.013161866,0.01218107,0.011467764,0.010754458,0.009801097,0.00930727,0.008422497,0.008168724,0.007489712,0.007112483,0.006364883,0.005672154,0.005384088,0.004986283,0.004698217,0.004005487,0.004067215,0.003607682,0.003230453,0.002633745,0.002407407,0.002345679,0.002400549,0.001824417,0.001975309,0.001255144,0.001186557,0.00133059,0.001124829,0.001049383,0.000679012,0.000397805,0.000727023,0.000438957,0.000411523,0.000144033,0.000418381,0.000445816,0.000281207,0.000397805,0.000418381,0.000253772,0.000329218,0.000384088,8.92E-05,3.43E-05,0.000390947,0.00048011,0.000144033,0.000185185,0.000246914,0.000301783,2.74E-05,0.000260631,0.000445816,8.92E-05,4.8E-05,0.000322359,0.000754458,0.000994513,0.001083676,0.001111111,0.001035665,0.000898491,0.000747599,0.000631001,0.000528121,0.00042524,0.000342936,0.000274348,0.00021262,0.000192044,0.000192044,0.00021262,0.000219479,0.00021262,0.000164609,0.000336077,0.000562414,0.000377229,0.000473251,0.000301783,0.000308642,0.000192044,0.000137174,5.49E-05,0.000130316,0,0,5.49E-05,0.000164609\nSRI-0000620.txt,COC1OC2COC(OC2C(O)C1N=[N+]=[N-])C1=CC=CC=C1,1,0.833281234,0.718662082,0.635302699,0.562363239,0.510263624,0.45816401,0.406064395,0.364384704,0.322705012,0.289361259,0.250807544,0.22163176,0.196623945,0.17161613,0.152860269,0.143482338,0.138272377,0.129936438,0.128894446,0.126810462,0.126810462,0.133062415,0.1351464,0.139314369,0.144524331,0.150776284,0.161196207,0.168490153,0.177868084,0.192455976,0.199437324,0.205272481,0.206314473,0.223090549,0.23642805,0.248723559,0.249452954,0.249452954,0.23778264,0.234448265,0.238824633,0.238095238,0.229863499,0.204647286,0.184120038,0.173491716,0.160466813,0.1485881,0.118995519,0.096801084,0.072314265,0.062727936,0.051787017,0.042513285,0.041783891,0.040325102,0.040429301,0.042617485,0.041158695,0.039908305,0.034698343,0.039387309,0.038032719,0.042617485,0.042304887,0.039283109,0.043346879,0.043555278,0.042721684,0.041783891,0.041783891,0.034177347,0.036573929,0.037615922,0.035636136,0.03782432,0.038657914,0.034698343,0.030947171,0.030947171,0.027612796,0.028863186,0.025528811,0.027925393,0.028133792,0.025841409,0.023965823,0.022090237,0.02021465,0.021360842,0.023861623,0.021256643,0.019276857,0.015734084,0.018547463,0.01886006,0.019485256,0.02021465,0.015838283,0.01615088,0.013441701,0.012712306,0.009586329,0.013024904,0.01750547,0.01083672,0.006981348,0.014275294,0.010315724,0.009169532,0.012087111,0.01219131,0.006460352,0.003542774,0.012608107,0.009169532,0.008440138,0.005105762,0.010419923,0.006564551,0.005939356,0.00406377,0.006668751,0.00541836,0.009169532,0.003542774,0.00270918,0.004793165,0.004167969,0.001771387,0.003959571,0.003855371,0.002917578,0.001771387,0.004897364,0.001979785,0,0.003646973,0.003021778,0.003959571,0.001146192,0.004376368,0.004272168,0.005939356,0.004272168,0.003959571,0.004167969,0.003855371,0.003542774,0.003125977,0.00270918,0.002604981,0.002500781,0.002396582,0.002188184,0.001979785,0.001875586,0.001771387,0.001562988,0.001458789,0.00135459,0.001250391,0.00135459,0.001667188,0.001771387,0.002188184,0.002917578,0.000833594,0.000937793,0.002396582,0.003542774,0.004167969,0.003334375,0.001667188,0.000833594,0.001771387,0.002500781,0.002500781,0.005730958,0.002188184\nSRI-1053282-001.txt,CSCCC(NS(=O)(=O)c1ccccc1F)C(O)=O,1,0.977090909,0.945727273,0.906727273,0.860727273,0.809,0.751818182,0.690090909,0.628181818,0.565818182,0.505,0.447454545,0.394818182,0.345363636,0.301090909,0.261454545,0.227363636,0.197818182,0.171909091,0.150090909,0.131454545,0.115818182,0.102727273,0.091818182,0.083363636,0.076909091,0.072,0.068181818,0.065854545,0.064363636,0.064045455,0.065009091,0.066836364,0.069736364,0.072745455,0.076454545,0.080445455,0.0845,0.089536364,0.096563636,0.104827273,0.112209091,0.118663636,0.123809091,0.128272727,0.134163636,0.142372727,0.151263636,0.157772727,0.159845455,0.155818182,0.147645455,0.139945455,0.1356,0.135590909,0.136145455,0.133554545,0.123772727,0.106509091,0.085181818,0.064354545,0.047181818,0.033572727,0.024081818,0.017909091,0.013981818,0.011181818,0.009218182,0.008072727,0.006563636,0.005409091,0.004109091,0.003172727,0.001481818,0.001245455,0.001263636,0.001145455,0.000772727,0.000972727,0.000472727,0.000581818,0.000181818,0.000109091,0.000272727,0.000372727,0.000336364,2.73E-05,0,0,0.000172727,0,8.18E-05,0.0004,0.000536364,0.000436364,0.000281818,0,0.000427273,0.000336364,3.64E-05,0.000227273,0.000527273,0.000254545,0.000381818,0.000190909,0.000236364,0.001,0.000681818,0.000354545,0.000354545,0.000454545,0.000809091,0.001127273,0.000563636,0.000581818,0.000336364,0.000309091,0,0.000927273,0.0009,0.000818182,0.000881818,0.000890909,0.000281818,0.000872727,0.000936364,0.000427273,0.000881818,0.000554545,0.000645455,0.000681818,0.000754545,0.000627273,0.000945455,0.000727273,0.001227273,0.001072727,0.0003,0.000545455,0.000672727,0.000845455,0.000772727,0.000363636,0.000363636,0.000436364,0.000490909,0.000481818,0.0004,0.000345455,0.000281818,0.000254545,0.0003,0.0003,0.000272727,0.0003,0.000354545,0.000381818,0.000418182,0.000445455,0.000481818,0.000518182,0.000545455,0.000572727,0.000572727,0.000545455,0.000581818,0.000763636,0.000609091,0.000409091,0.000527273,0.000381818,0.000372727,0.000618182,0.000463636,0.000727273,0.000690909,0.000554545,0.000445455,0.000336364,2.73E-05,0.000481818\nSRI-1053292-001.txt,CC(C)C(NC(=O)Nc1ccc(Cl)cc1Cl)C(O)=O,0.42341827,0.375047319,0.340136112,0.316160945,0.301439351,0.29470948,0.294288863,0.3001775,0.311534158,0.326886677,0.346277119,0.369453114,0.396919401,0.427582378,0.461147611,0.497699225,0.536185677,0.576775214,0.61858454,0.662076334,0.705820498,0.74927023,0.792509653,0.834066609,0.87402522,0.911376006,0.94346908,0.969757641,0.98809654,0.998443717,1,0.993324809,0.979192079,0.957770057,0.928520354,0.889747882,0.83786478,0.77205505,0.691494284,0.600662051,0.505711978,0.413937564,0.331269506,0.261018061,0.204440874,0.160305536,0.127480589,0.103539071,0.086756454,0.074794108,0.066890715,0.061687683,0.058533056,0.056644486,0.055786428,0.055891582,0.056303786,0.057203907,0.058495201,0.059761258,0.060795976,0.061948466,0.063399595,0.064295509,0.065296577,0.066318676,0.067206178,0.067971701,0.068606833,0.069162047,0.069044274,0.068287164,0.066991663,0.065304989,0.062827555,0.060800182,0.058806457,0.056610837,0.054646556,0.051920958,0.048526579,0.04419843,0.039495933,0.034435911,0.029186611,0.024050878,0.019167515,0.015020232,0.011684739,0.00893811,0.006776139,0.005026373,0.00386547,0.003112566,0.002464815,0.001960075,0.001627788,0.00135018,0.001009481,0.000937976,0.000807585,0.000828615,0.000778141,0.000761317,0.000757111,0.000685606,0.000849646,0.000668781,0.000529977,0.000769729,0.000828615,0.000757111,0.000782348,0.000656162,0.00064775,0.000403792,0.000723461,0.000698224,0.000660369,0.000382761,0.00039538,0.000723461,0.000555214,0.000529977,0.000660369,0.000706636,0.000445854,0.000643544,0.000567833,0.000689812,0.000656162,0.000601482,0.000698224,0.000656162,0.000559421,0.000651956,0.000605688,0.00045006,0.000546802,0.000437442,0.000496328,0.000378555,0.00028602,0.000298638,0.000269195,0.000391174,0.000416411,0.000374349,0.000294432,0.000172453,8.41E-05,3.79E-05,8.41E-06,0,3.36E-05,7.15E-05,0.00010936,0.00014301,0.000172453,0.00019769,0.000231339,0.00025237,0.000269195,0.000256576,0.000218721,0.000235545,0.000344906,0.0003407,0.000256576,0.000235545,0.000210308,0.000248164,0.00019769,0.000281813,0.000374349,0.00025237,0.000357524,0.000147216,7.15E-05,0.000210308,0.000344906\nSRI-1052798-001.txt,CCCCc1cc(=O)oc2cc(OCC(=O)N[C@@H](Cc3c[nH]c4ccccc34)C(O)=O)ccc12,1,0.991077052,0.973231157,0.944100357,0.903159773,0.849097208,0.783487298,0.709111904,0.63069494,0.552277976,0.478689901,0.413788579,0.357967667,0.312486878,0.276375184,0.247795507,0.226301701,0.209741759,0.196934705,0.186752047,0.17869515,0.172370355,0.16743649,0.164077262,0.162213941,0.161741549,0.162108965,0.162686332,0.163158723,0.163339807,0.163077367,0.162933025,0.163447407,0.165111274,0.168103086,0.172312618,0.17693418,0.180792043,0.182894184,0.182295822,0.178954965,0.173952866,0.169286689,0.165867101,0.164675625,0.165940584,0.169294562,0.174099832,0.179918119,0.186384632,0.193058472,0.199834663,0.206849675,0.213460529,0.219727588,0.225579992,0.230960004,0.236292778,0.24215043,0.248265274,0.254534957,0.2605422,0.265814613,0.270105501,0.272895234,0.274052593,0.27387151,0.273742914,0.27497638,0.278285744,0.282665862,0.285736406,0.285455595,0.281621352,0.27567447,0.269557002,0.264554902,0.261431871,0.259807369,0.259959584,0.261284904,0.263623242,0.266848625,0.270709112,0.275577367,0.281028239,0.287287424,0.293984883,0.300910666,0.308266849,0.315486563,0.322512072,0.328973336,0.335198404,0.340972076,0.346396704,0.351270208,0.355702813,0.359870355,0.363547134,0.366927357,0.369577997,0.371635524,0.372449087,0.372249633,0.370509658,0.367105816,0.362135209,0.356211946,0.348357128,0.339888201,0.330576842,0.321097523,0.310990972,0.300923788,0.29060991,0.280547974,0.270396809,0.259573798,0.248367625,0.236531598,0.223900378,0.210111799,0.195764224,0.180742179,0.16493544,0.148989607,0.133080516,0.118026979,0.103842116,0.090930086,0.078647911,0.067607075,0.0574979,0.048572328,0.040691266,0.033970187,0.028249003,0.023375499,0.019095108,0.015646651,0.012830674,0.010384737,0.008429561,0.006931031,0.00580254,0.005204178,0.004931241,0.004576947,0.003863111,0.00302068,0.0022806,0.00180296,0.001519526,0.001343691,0.00121772,0.001104871,0.000999895,0.000900168,0.000800441,0.000698089,0.000582616,0.000469767,0.000367415,0.000275562,0.000207327,0.000170586,0.000146966,0.000188957,0.000165337,9.45E-05,0.000152215,0.00017321,0.000102351,1.57E-05,3.41E-05,6.04E-05,2.62E-06,0,3.15E-05,0.000118098\nSRI-002276.txt,[O-][N+](=O)C1=CC=C(\\C=N\\NC(=O)C2=CC=NC=C2)C=C1,0.200819904,0.21608199,0.229361952,0.238220781,0.246152041,0.255822492,0.264559854,0.272237137,0.279247731,0.285450844,0.290722247,0.294957038,0.298231133,0.300434107,0.301610131,0.302263018,0.30231685,0.302090479,0.301695711,0.301438973,0.301095276,0.300944822,0.300973809,0.301294041,0.301982815,0.303193347,0.304892508,0.307048552,0.309668381,0.312825149,0.316500914,0.320641844,0.325189965,0.328923703,0.332770627,0.338087581,0.343526002,0.348976845,0.354326926,0.359476863,0.364394907,0.369018945,0.373389006,0.377423652,0.381265054,0.384925636,0.3883281,0.390836123,0.39318541,0.396140654,0.398850202,0.401406536,0.403776528,0.405891163,0.408077573,0.410105249,0.412333069,0.414617482,0.417296663,0.42026709,0.422873115,0.42583526,0.430220505,0.435181338,0.440944132,0.447478519,0.454737569,0.462740605,0.471570448,0.481287829,0.491943821,0.503428,0.51590048,0.522498361,0.536502985,0.551563546,0.567424687,0.584380413,0.602038718,0.620526588,0.639696332,0.659266365,0.679247731,0.699637669,0.719786052,0.730095586,0.750653922,0.770651851,0.790586287,0.809837469,0.829026536,0.847445391,0.865022257,0.882062183,0.898145554,0.913258567,0.92396425,0.933913524,0.946419131,0.957928155,0.967809793,0.976239346,0.983523241,0.989567618,0.994124021,0.997556852,0.998832258,1,0.999200801,0.99612409,0.991486249,0.988346044,0.983317575,0.974961179,0.964256876,0.953032196,0.940839919,0.9267718,0.915364919,0.903535664,0.886276269,0.867832568,0.848989958,0.828190069,0.807590324,0.78583664,0.763746161,0.740897892,0.717364988,0.700042099,0.681568032,0.657285621,0.632602919,0.608072052,0.583255461,0.558506505,0.533800338,0.509491701,0.485245178,0.461389282,0.449597295,0.42605887,0.403154008,0.380529349,0.358269091,0.336796991,0.315961213,0.295687222,0.276355982,0.257449877,0.243708893,0.230285379,0.212780289,0.196142034,0.17995376,0.164612996,0.150362676,0.137082715,0.124538459,0.113047379,0.104827634,0.096999896,0.087159667,0.077912971,0.069301218,0.061084233,0.05381,0.047174851,0.04097864,0.035239311,0.030027261,0.027702819,0.023277546,0.019233238,0.015518824,0.012080472,0.009213568,0.006491597,0.004178198,0.00200559,0\nSRI-1052622-002.txt,COC1=CC=C(C=C1)S(=O)(=O)CCC(O)=O,0.171105392,0.191111719,0.214794422,0.242324496,0.273359951,0.307045818,0.344921043,0.385703171,0.430503664,0.479237024,0.528996349,0.580123629,0.632704359,0.686225559,0.739148278,0.790275557,0.838666929,0.88261245,0.92125715,0.953575062,0.977770748,0.99435719,1,0.995639647,0.980164667,0.95395125,0.916554808,0.868573822,0.812017476,0.746347135,0.676581483,0.605926661,0.537332319,0.471875721,0.413147748,0.361721228,0.317527765,0.280464762,0.249608851,0.225207972,0.205432487,0.189025589,0.174055043,0.160195959,0.147918573,0.136265315,0.127518959,0.120713388,0.114147209,0.106734608,0.098193446,0.08825868,0.077451844,0.066739054,0.057445517,0.050315057,0.045347674,0.042312526,0.039585168,0.035609552,0.030086438,0.023605756,0.017646606,0.01306396,0.009575678,0.007840086,0.006446483,0.005531664,0.004505698,0.003479733,0.003881569,0.003342938,0.004206458,0.003736224,0.00357378,0.00356523,0.003368587,0.003214692,0.003146294,0.003599429,0.003625078,0.003531031,0.003223242,0.003778973,0.003496832,0.003633628,0.003915768,0.003804622,0.004086762,0.004086762,0.004531348,0.004480049,0.004266306,0.004420201,0.004411652,0.004326154,0.004129511,0.004574096,0.004967383,0.004668143,0.004685242,0.00446295,0.004437301,0.004796389,0.005429067,0.005181126,0.005027231,0.005104178,0.004881886,0.004642494,0.00476219,0.005027231,0.004283406,0.004411652,0.005069979,0.004599745,0.004539897,0.004898985,0.004642494,0.004291956,0.004343254,0.004283406,0.004009815,0.004249207,0.004531348,0.003924318,0.003650727,0.003360037,0.0029753,0.003650727,0.003684926,0.003129195,0.003633628,0.0029582,0.002881253,0.002470867,0.002770107,0.002607662,0.002308422,0.001752691,0.001940785,0.001838188,0.001581697,0.001342305,0.001538948,0.001547498,0.001590246,0.001564597,0.001453451,0.001222609,0.000991767,0.000803673,0.000666878,0.000572831,0.000521532,0.000495883,0.000478784,0.000444585,0.000401836,0.000350538,0.00029069,0.000213743,0.000102597,5.13E-05,3.42E-05,9.4E-05,0.000145345,0.000324889,0.000487334,0.000222293,0.000179544,0.000239392,5.13E-05,0.000333439,0.000427486,0.00059848,0.000102597,0.00029069,0.000128246,0,0.000393287\nSRI-1052854-001.txt,Cc1nc(sc1C(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(O)=O)-c1ccccc1Cl,0.995865684,1,0.9960724,0.981602295,0.957209833,0.920414424,0.872869794,0.815816238,0.751941061,0.684551716,0.618402666,0.557483525,0.502104367,0.453174741,0.410529275,0.373485807,0.340493968,0.311057641,0.284494663,0.260288244,0.23914122,0.221136275,0.205880651,0.193291659,0.183286616,0.175700146,0.170077477,0.166108534,0.163731303,0.162677052,0.162718395,0.163627945,0.165387096,0.167830477,0.1708754,0.174557008,0.178852562,0.183396175,0.188336682,0.193659614,0.199346365,0.205380398,0.21154673,0.218264993,0.225107285,0.232117018,0.239711756,0.247182464,0.255045932,0.262936274,0.270696384,0.278921605,0.286946312,0.294937944,0.302716659,0.310330001,0.317763501,0.325399582,0.333486303,0.342108418,0.350869033,0.359795021,0.368189749,0.375834098,0.38181852,0.386368334,0.389293363,0.392261801,0.39640852,0.402713351,0.409818173,0.415639289,0.41773332,0.415517327,0.410560282,0.405012031,0.400193486,0.396358908,0.393762558,0.391984802,0.39068456,0.389543489,0.388753835,0.387540413,0.386438618,0.385001943,0.383122897,0.380673315,0.378006681,0.374941086,0.371443455,0.367350482,0.363044593,0.357915974,0.352218887,0.345448945,0.338040252,0.329641389,0.320388791,0.310071606,0.299345124,0.288021234,0.276073062,0.263930577,0.252003076,0.239904001,0.228013709,0.216102746,0.204346819,0.192167126,0.179867537,0.16732609,0.154453898,0.141240625,0.127959136,0.114580491,0.101507785,0.088664533,0.076652279,0.06510927,0.05462878,0.045378249,0.037380415,0.030494712,0.024787289,0.020080371,0.016268532,0.013277355,0.010935265,0.008942525,0.007414895,0.006294496,0.005333267,0.004390643,0.00376016,0.003177222,0.002848543,0.002466119,0.002094031,0.001916255,0.001806696,0.001521428,0.001362257,0.001285772,0.001114198,0.001062519,0.001019109,0.001006706,0.0009819,0.000903348,0.000804124,0.000713169,0.000638752,0.00058914,0.000549864,0.000514722,0.000483715,0.000456842,0.000427902,0.000398961,0.000367954,0.00033488,0.000303872,0.000276999,0.000256328,0.000229455,0.000208783,0.000219119,0.000128164,0.000192246,0.000159171,0.000126097,7.44E-05,0.000200514,0.000200514,0.000159171,0.000169507,3.51E-05,5.37E-05,4.13E-05,0\nSRI-0000387.txt,CC1=CC=C(C=C1)S(=O)(=O)NCCCC(N)C(O)=O,0.772420444,0.817550627,0.859209257,0.898939248,0.933654773,0.96412729,0.984956606,0.998457088,1,0.993828351,0.975313404,0.949083896,0.911282546,0.86460945,0.810221794,0.748891032,0.683317261,0.614657666,0.544455159,0.47463838,0.406364513,0.344223722,0.286557377,0.236451302,0.195525554,0.15903568,0.130530376,0.108273867,0.089990357,0.077145612,0.067733848,0.06048216,0.053770492,0.051070395,0.049720347,0.048601736,0.047945998,0.047675988,0.046943105,0.045708775,0.044435873,0.044705882,0.046711668,0.047097396,0.04756027,0.046865959,0.045323047,0.042584378,0.039807136,0.038109932,0.036374156,0.033596914,0.030086789,0.029585342,0.027193828,0.026923819,0.022449373,0.01828351,0.014194793,0.009913211,0.00852459,0.005168756,0.005284474,0.003934426,0.003278689,0.002275796,0.003625844,0.004628737,0.003934426,0.003201543,0.002430087,0.00466731,0.004628737,0.003471553,0.002777242,0.00316297,0.003818708,0.00316297,0.002661524,0.001890068,0.002700096,0.003972999,0.003201543,0.003934426,0.003548698,0.003201543,0.001041466,0.002584378,0.002661524,0.002931533,0.002970106,0.00343298,0.001311475,0.002314368,0.00343298,0.001465767,0.001272903,0.001041466,0.001311475,0.001465767,0.000732883,0.001080039,0.000578592,0.001465767,0.002121504,0.002005786,0.001697203,0.001041466,0.001697203,0.000424301,0.001735776,0.001890068,0.002314368,0.00316297,0.002237223,0.000771456,0.001080039,0.002121504,0.002391514,0.002352941,0.001427194,0.002082932,0.003047252,0.002352941,0.00246866,0.002082932,0.003394407,0.002044359,0.002507232,0.002352941,0.002121504,0.003008679,0.004243009,0.001542912,0.002622951,0.001812922,0.003008679,0.002121504,0.001388621,0,0.000848602,0.002082932,0.002314368,0.002700096,0.002622951,0.002121504,0.00192864,0.001890068,0.00192864,0.00192864,0.001851495,0.001735776,0.001658631,0.001542912,0.001465767,0.001427194,0.001388621,0.001350048,0.001350048,0.001388621,0.001427194,0.001504339,0.001658631,0.001774349,0.001812922,0.001774349,0.001388621,0.000848602,0.003857281,0.000501446,0.000694311,0.002237223,0.003587271,0.001041466,0.000192864,0.001581485,0.001465767,0.001774349,0.001967213,0.001658631,0.002777242\nSRI-0000378.txt,COC(=O)NCC1=NC2=CC(Cl)=CC=C2N1,1,0.906942271,0.822668753,0.743336353,0.671141124,0.607181092,0.550907244,0.501221554,0.463339647,0.43424195,0.414477477,0.400203135,0.391418924,0.384830767,0.380438662,0.379066129,0.377144583,0.374399517,0.371105438,0.365862362,0.360701639,0.353948777,0.347744928,0.340552856,0.331905899,0.323478547,0.314996294,0.305168959,0.294463202,0.28309863,0.27431442,0.264157677,0.254522496,0.246671608,0.24008345,0.232836476,0.227373796,0.222487579,0.218946444,0.217875868,0.218891542,0.224409125,0.234977628,0.246095144,0.259985177,0.276537923,0.29811414,0.321721705,0.349090011,0.378379862,0.407230503,0.434379203,0.457520108,0.479123775,0.50481759,0.535040764,0.571412885,0.608388921,0.639435614,0.655302094,0.649592358,0.624392654,0.590902852,0.565538445,0.562518872,0.58412254,0.608690878,0.605945812,0.55867578,0.47097093,0.366081968,0.266985094,0.187268385,0.128523978,0.086716627,0.060611052,0.041917154,0.031129046,0.023333059,0.017842927,0.01504296,0.012901809,0.009882237,0.008948914,0.006752862,0.006890115,0.004886217,0.006066595,0.004309753,0.004639161,0.003513684,0.003239178,0.003431332,0.003047023,0.002443109,0.001921546,0.001701941,0.001701941,0.00290977,0.002854868,0.001043125,0.001399984,0.001098026,0.00208625,0.001647039,0.001207829,0.000631365,0.00126273,0.002058799,0.001976447,0.001619589,0.002141151,0.000192155,0.000741168,0.00126273,0.001592138,0.001921546,0.00208625,0.001921546,0.001454885,0.002168602,0.001537237,0.001592138,0.002662714,0.001839194,0.001207829,0.001372533,0.002278405,0.002168602,0.000576464,0.001427434,0.003513684,0.003156826,0.00249801,0.002745066,0.002882319,0.002141151,0.001537237,0.000768618,0.001839194,0.000384309,0.000631365,0.000905872,0.002772516,0.001180378,0.000988224,0.001427434,0.001839194,0.001784293,0.00126273,0.000768618,0.000439211,0.000247056,0.000137253,5.49E-05,8.24E-05,0.000164704,0.000219605,0.000247056,0.000301957,0.000274507,0.000329408,0.000384309,0.000384309,0.000384309,0.000384309,0.000658816,0.001015674,0.001454885,0.001180378,0.001399984,0,0.000494112,0.000247056,0.000274507,0.000603914,0.000576464,0.001372533,0.000686266,5.49E-05,0.00085097\nSRI-1008400-002.txt,OC(=O)C1=C(SC2CC(=O)N(C2=O)C2=CC=C(OC(F)(F)F)C=C2)C=CC=C1,1,0.998412714,0.992063568,0.982222392,0.966349527,0.943492602,0.913016701,0.874286912,0.826985775,0.772065663,0.713336063,0.65486043,0.598638743,0.547020187,0.5012111,0.461751158,0.42791021,0.399466037,0.375117062,0.354704558,0.337625356,0.323530252,0.311784332,0.30213363,0.294197198,0.287784561,0.28273699,0.278832265,0.275943404,0.273625965,0.271721222,0.270194252,0.26849903,0.26663873,0.264324467,0.261289575,0.257527706,0.252946797,0.247296057,0.240413583,0.232239058,0.222616927,0.211797983,0.200093332,0.187798211,0.175560233,0.163471459,0.152179503,0.141919283,0.132484453,0.123960724,0.116576668,0.109884668,0.104075199,0.098919693,0.094567353,0.090665803,0.08731028,0.084500783,0.082148424,0.080110348,0.078513538,0.077288153,0.076367527,0.07575166,0.075246902,0.075123094,0.075084999,0.075732612,0.076507208,0.077440532,0.07872306,0.079992889,0.081535731,0.083094447,0.084837287,0.086795999,0.088691219,0.090821357,0.093167367,0.095205442,0.097297486,0.099392704,0.101491097,0.103300603,0.104856144,0.106367241,0.107573579,0.108608489,0.109284673,0.109665622,0.109881493,0.109681495,0.109227531,0.108418015,0.107411675,0.105948197,0.104183135,0.102091091,0.099786351,0.09730701,0.094538782,0.091386431,0.08786583,0.083897614,0.079964318,0.0758215,0.071208846,0.066573969,0.062027981,0.057221677,0.052574102,0.047691609,0.043212287,0.03876471,0.034364752,0.030736215,0.027085456,0.023634696,0.020685517,0.01779983,0.015434774,0.013228445,0.011361797,0.009568163,0.008130081,0.006711047,0.005590423,0.004692019,0.003990438,0.003196795,0.002707911,0.002155535,0.001793634,0.00145078,0.001330146,0.001190465,0.001031736,0.000812691,0.000736501,0.000758723,0.000698406,0.000638089,0.000558725,0.000542852,0.000453964,0.000415869,0.000428567,0.000450789,0.000460313,0.000447615,0.000431742,0.000419044,0.000403171,0.000390472,0.000377774,0.000371425,0.000365076,0.000358727,0.000358727,0.000355552,0.000355552,0.000361901,0.000361901,0.000339679,0.00025714,0.000238093,0.000396822,0.000161903,0.000269839,0.000339679,0.000149205,0.000199998,0.000193649,0.000168252,4.44E-05,4.76E-05,7.62E-05,3.17E-06,8.89E-05,0\nSRI-0000436.txt,NC(C1=NC2=CC=CC=C2N1C1=CC=CC=C1)C1=CC=CC=C1,1,0.947893901,0.898893464,0.84920288,0.802848007,0.75844855,0.714854264,0.674020566,0.63629253,0.600864984,0.569923394,0.543352734,0.520692908,0.502404012,0.487680876,0.476753549,0.469276956,0.464445927,0.46145529,0.460880167,0.462950608,0.466516368,0.471347397,0.477213647,0.484230141,0.491246636,0.498033081,0.503784306,0.507787159,0.510145161,0.510823805,0.510041639,0.507913686,0.504992063,0.499930985,0.49131565,0.480629874,0.466895949,0.451344636,0.4333318,0.415203938,0.397570683,0.380604569,0.364949734,0.350916745,0.339448803,0.33150061,0.325392809,0.321677517,0.317824197,0.313844349,0.308633739,0.3032851,0.301640249,0.303515149,0.309427408,0.317191562,0.321366951,0.319929145,0.310738687,0.294290184,0.277048011,0.264291794,0.261370172,0.265442039,0.268570706,0.259322736,0.235271113,0.19845177,0.157319009,0.119291909,0.087453128,0.062826382,0.04441096,0.031999816,0.023637535,0.017207665,0.013296832,0.010237181,0.007856173,0.006050289,0.004969058,0.004635487,0.003933838,0.003128666,0.0028181,0.002323495,0.002162461,0.001943914,0.002024431,0.001920909,0.001817387,0.001541328,0.001345787,0.001840392,0.001380294,0.001380294,0.00117325,0.001196255,0.001426304,0.001150245,0.001368792,0.001460811,0.001495319,0.000701649,0.00108123,0.001414801,0.000977708,0.00112724,0.001207757,0.000333571,0.000322069,0.000586625,0.001759875,0.001161747,0.00065564,0.001023718,0.000954703,0.001058225,0.001184752,0.00121926,0.001437806,0.001299777,0.001023718,0.001092733,0.001000713,0.000690147,0.00108123,0.001230762,0.00060963,0.001368792,0.001633348,0.001610343,0.000943201,0.000828176,0.000885689,0.001552831,0.001035221,0.000943201,0.000690147,0.00065564,0.000667142,0.001046723,0.001023718,0.000770664,0.000759162,0.000828176,0.000954703,0.001000713,0.000977708,0.000943201,0.000897191,0.000874186,0.000828176,0.000759162,0.000701649,0.00065564,0.000632635,0.000621132,0.000598127,0.000575123,0.00056362,0.000575123,0.000632635,0.000690147,0.000598127,0.00056362,0.000747659,0.000989211,2.3E-05,0.000448596,0,0.000172537,0.000667142,0.000529113,0.000839679,0.000276059,0.000747659,0.000586625,0.000115025,0.000529113\nSRI-0000344.txt,CC12CCC3C(CC=C4CC(O)CCC34C)C1CCC2(O)CC(O)=O,1,0.797101449,0.652173913,0.536231884,0.449275362,0.362318841,0.313043478,0.246376812,0.208695652,0.179710145,0.171014493,0.127536232,0.11884058,0.115942029,0.098550725,0.08115942,0.069565217,0.072463768,0.066666667,0.052173913,0.055072464,0.037681159,0.04057971,0.04057971,0.037681159,0.037681159,0.026086957,0.031884058,0.031884058,0.028985507,0.032173913,0.032463768,0.028985507,0.035942029,0.029565217,0.025507246,0.024057971,0.028985507,0.029275362,0.028985507,0.022028986,0.018550725,0.023768116,0.024057971,0.039130435,0.033333333,0.02173913,0.02,0.033623188,0.021449275,0.01942029,0.023478261,0.019710145,0.013043478,0.019130435,0.026956522,0.010724638,0.006666667,0.015942029,0.019130435,0.010724638,0.025507246,0.02115942,0.008405797,0.002028986,0.016811594,0.010144928,0.004927536,0.012173913,0.014492754,0.021449275,0.01884058,0.018550725,0.022318841,0.029855072,0.024057971,0.026666667,0.024927536,0.030434783,0.028985507,0.022898551,0.022898551,0.015362319,0.026376812,0.022028986,0.016521739,0.016811594,0.011304348,0.008985507,0.01826087,0.011304348,0.011304348,0.018550725,0.011884058,0.008985507,0.02115942,0.016521739,0.013043478,0.013913043,0.015652174,0.009565217,0.007246377,0.016231884,0.007246377,0.011014493,0.016521739,0.025507246,0.003188406,0.002898551,0.012463768,0.014492754,0.002028986,0.015652174,0.008695652,0.017971014,0.01884058,0.014782609,0.004057971,0.015362319,0.017971014,0.009855072,0.02173913,0.013043478,0.022028986,0.003188406,0.02057971,0.009855072,0.013043478,0.016521739,0.007826087,0.003478261,0.009565217,0.009275362,0.004347826,0.013913043,0.024637681,0.017681159,0.013913043,0.007536232,0.010434783,0.011594203,0.017971014,0.013333333,0.011014493,0.007246377,0.010434783,0.008405797,0.004637681,0.002028986,0.002898551,0.002028986,0.00115942,0.00057971,0.000289855,0.000289855,0,0,0.000289855,0.000869565,0.00115942,0.00173913,0.002898551,0.004057971,0.004347826,0.003768116,0.005217391,0.013043478,0.020289855,0.006376812,0.015072464,0.016231884,0.012173913,0.010724638,0.006956522,0.006086957,0.016521739,0.010144928,0.006666667,0.008115942,0.009565217,0.008695652\nSRI-0000422.txt,CCCCCCCCNC1=CC=C(C=C1)S(=O)(=O)C1=CC=C(N)C=C1,1,1,0.912280702,0.736842105,0.736842105,0.649122807,0.561403509,0.473684211,0.385964912,0.298245614,0.210526316,0.210526316,0.166666667,0.105263158,0.061403509,0.087719298,0.087719298,0.070175439,0.096491228,0.122807018,0.131578947,0.105263158,0.122807018,0.131578947,0.140350877,0.140350877,0.131578947,0.140350877,0.114035088,0.149122807,0.122807018,0.122807018,0.137719298,0.162280702,0.195614035,0.189473684,0.196491228,0.180701754,0.203508772,0.220175439,0.218421053,0.254385965,0.250877193,0.252631579,0.242105263,0.214912281,0.254385965,0.268421053,0.269298246,0.246491228,0.223684211,0.239473684,0.221929825,0.221929825,0.194736842,0.194736842,0.216666667,0.205263158,0.206140351,0.23245614,0.225438596,0.197368421,0.21754386,0.244736842,0.237719298,0.253508772,0.207894737,0.242105263,0.26754386,0.278070175,0.315789474,0.314035088,0.29122807,0.272807018,0.273684211,0.276315789,0.312280702,0.343859649,0.371052632,0.381578947,0.368421053,0.396491228,0.395614035,0.414912281,0.463157895,0.470175439,0.48245614,0.448245614,0.450877193,0.480701754,0.504385965,0.464912281,0.480701754,0.455263158,0.478070175,0.507894737,0.478070175,0.483333333,0.452631579,0.474561404,0.462280702,0.439473684,0.448245614,0.428070175,0.409649123,0.352631579,0.357894737,0.424561404,0.40877193,0.372807018,0.328070175,0.312280702,0.278070175,0.261403509,0.298245614,0.277192982,0.23245614,0.184210526,0.173684211,0.200877193,0.215789474,0.177192982,0.126315789,0.144736842,0.159649123,0.120175439,0.083333333,0.08245614,0.074561404,0.018421053,0.047368421,0.097368421,0.08245614,0.068421053,0.071052632,0.063157895,0.092105263,0.026315789,0.021052632,0.030701754,0.020175439,0.015789474,0.054385965,0.039473684,0.034210526,0.037719298,0.035964912,0.039473684,0.040350877,0.042982456,0.045614035,0.047368421,0.048245614,0.048245614,0.046491228,0.043859649,0.04122807,0.040350877,0.037719298,0.035964912,0.034210526,0.033333333,0.035087719,0.042105263,0.044736842,0.023684211,0.003508772,0.026315789,0.071929825,0.030701754,0.043859649,0.023684211,0,0.076315789,0.060526316,0.014912281,0.021929825,0.029824561,0.047368421,0.020175439,0.049122807\nSRI-0000420.txt,CCCCCCNC1=CC=C(C=C1)S(=O)(=O)C1=CC=C(N)C=C1,0.465498507,0.4214478,0.381312711,0.342156527,0.305937056,0.274612109,0.244266066,0.218814547,0.196299741,0.177700553,0.163995889,0.153227938,0.145396701,0.141481083,0.13883804,0.139425383,0.141285302,0.144124125,0.147746072,0.152640595,0.158611913,0.164876903,0.171729235,0.179560472,0.18768538,0.196593412,0.206382458,0.21734619,0.229680388,0.243091381,0.258264402,0.275297342,0.294190201,0.314913612,0.337164113,0.361049386,0.38665753,0.412588713,0.439136606,0.465733444,0.491449268,0.515775048,0.537330527,0.555675199,0.57013362,0.578777348,0.581948999,0.578728403,0.570074886,0.556849885,0.541353825,0.525436836,0.510635799,0.499711223,0.493211297,0.491645049,0.495139739,0.503352748,0.516323234,0.532387059,0.551808526,0.572923499,0.596221428,0.620165435,0.645127502,0.670148304,0.695188684,0.720297587,0.744398218,0.768224756,0.792433067,0.815251334,0.837374578,0.858440605,0.878439626,0.897185649,0.91513876,0.931917185,0.946679066,0.960119426,0.972385101,0.981097352,0.990103274,0.996172483,0.998844893,1,0.997053497,0.991043023,0.980147815,0.967294797,0.948773922,0.926503842,0.899349028,0.867603152,0.832078704,0.791982771,0.748196368,0.701864813,0.652939161,0.602574519,0.550790465,0.49943713,0.448074005,0.39876658,0.351779159,0.306612501,0.265615976,0.227321228,0.193891635,0.16285057,0.13576428,0.112084577,0.092085556,0.075307131,0.061210905,0.049287847,0.03991973,0.031853556,0.025745191,0.02062552,0.016308551,0.013469727,0.010895208,0.008614361,0.007106847,0.005775537,0.004845578,0.003984142,0.003739416,0.003161862,0.002623464,0.002760511,0.002016543,0.001762028,0.001840341,0.001605404,0.00185013,0.00102785,0.000792913,0.001057217,0.001008272,0.000900592,0.001223631,0.001047428,0.000783124,0.000773335,0.000900592,0.000998483,0.001037639,0.000998483,0.00092017,0.000861436,0.000812491,0.000753757,0.000685233,0.000636288,0.000606921,0.000577554,0.000567765,0.000557976,0.000538398,0.000538398,0.000557976,0.000557976,0.000538398,0.000450296,0.000254515,0.000274093,0.000430718,0.000254515,0.000137047,0.000420929,0.000293671,0.000381773,0,0.000430718,0.000362195,0.000293671,0.000469874,0.00041114,0.000362195\nSRI-1052862-001.txt,O=C(COC(=O)CCCN1C(=O)c2ccccc2C1=O)Nc1sc2CCCc2c1C#N,1,0.984632477,0.955766455,0.911325241,0.850478158,0.777378591,0.699087294,0.623703365,0.55807989,0.50450123,0.465667085,0.44033144,0.423302564,0.409056455,0.393107458,0.375372507,0.35834363,0.345011266,0.336185324,0.332613413,0.333464857,0.334918542,0.329249172,0.310745844,0.281090679,0.248029738,0.219101415,0.197649184,0.183984549,0.17615542,0.172147404,0.169738441,0.167474846,0.164727382,0.161448285,0.158206569,0.155554633,0.153714683,0.152252692,0.150360825,0.14665393,0.140442543,0.131317557,0.120103419,0.107877932,0.095924491,0.085314671,0.076540646,0.069965838,0.065465646,0.062986076,0.062086868,0.062668342,0.064273625,0.06661198,0.069816317,0.073485832,0.077574839,0.082147715,0.086932414,0.092099224,0.097502778,0.103161764,0.10910318,0.115069517,0.12125183,0.127648042,0.134006874,0.14048823,0.147013197,0.1534904,0.160173196,0.16668778,0.173059072,0.179108476,0.184919061,0.190484596,0.195665943,0.200421569,0.204703708,0.208578816,0.212080119,0.215053942,0.217705878,0.219439916,0.220634014,0.220926828,0.22054264,0.219610205,0.217743259,0.215323912,0.212366702,0.208832172,0.204844923,0.200635468,0.195873613,0.190845941,0.185461078,0.179768864,0.173839908,0.167582834,0.16102464,0.154233856,0.147021504,0.139657553,0.131888648,0.123810315,0.115478626,0.107317225,0.098732179,0.090232278,0.081846595,0.073550209,0.065696159,0.058157766,0.051001485,0.044491055,0.038319125,0.032863655,0.028087263,0.02378851,0.020017237,0.016725679,0.014017673,0.01160248,0.009507097,0.007883124,0.006610111,0.005330869,0.004361054,0.003644595,0.003065198,0.002539795,0.002222061,0.001827489,0.001468221,0.001223172,0.001154641,0.001005119,0.000838984,0.000733072,0.000602241,0.000587704,0.000510866,0.000483869,0.000479716,0.000454796,0.000436105,0.000425722,0.000421569,0.000409108,0.000394572,0.000377958,0.000365498,0.000350961,0.000332271,0.000315657,0.000299044,0.000280353,0.00026374,0.00024505,0.000226359,0.000207669,0.000195209,0.000182749,0.000159905,0.000141215,0.000224283,0.000178596,0.0002762,0.000184826,0.000126678,4.36E-05,0.000126678,9.14E-05,0.000141215,0.000207669,6.44E-05,8.31E-05,8.93E-05,0\nSRI-1052872-001.txt,COc1ccc2[nH]c(cc2c1OC)C(=O)N[C@@H](C)C(=O)NCCc1c[nH]c2ccccc12,0.98111791,0.994425951,1,0.994251762,0.978923129,0.948265861,0.900677421,0.836210065,0.758034033,0.669389241,0.577661303,0.489626173,0.40845409,0.336444349,0.275269166,0.22459758,0.1839767,0.152013015,0.127487201,0.108848976,0.095105463,0.084932824,0.077651723,0.072373796,0.068750664,0.066399112,0.064970762,0.064430776,0.06446213,0.065214627,0.066449627,0.068177582,0.070400234,0.073136744,0.076195503,0.079665348,0.083654277,0.088116999,0.09283578,0.097956937,0.103475245,0.109273998,0.115536093,0.121914895,0.128497498,0.135158486,0.1419536,0.148854968,0.155515957,0.162041077,0.168099371,0.173868512,0.179275339,0.184473139,0.188951539,0.192444029,0.194999382,0.196898042,0.198227104,0.199054502,0.199516103,0.19966068,0.199239142,0.198148719,0.195114346,0.189303401,0.18017938,0.169435401,0.159743524,0.152558227,0.147576421,0.142582422,0.134712562,0.122834613,0.108237573,0.093107515,0.078937238,0.066548915,0.056074929,0.047085034,0.039370202,0.032737084,0.027067232,0.022122005,0.017922308,0.014485559,0.011846595,0.009590847,0.007711348,0.006258611,0.00504974,0.004189246,0.003452426,0.00288457,0.002504838,0.002149493,0.001792405,0.001651312,0.001517186,0.001329062,0.001301192,0.001278547,0.001322095,0.001228033,0.001147906,0.001151389,0.001133971,0.001264612,0.001228033,0.001102616,0.001125261,0.001226291,0.00114268,0.001027715,0.00107823,0.001012038,0.001059069,0.001017264,0.001008554,0.000989394,0.000879655,0.000902299,0.00082043,0.000881396,0.000843075,0.000787334,0.000747271,0.000790818,0.000726368,0.000553921,0.000501664,0.000485987,0.000574824,0.000614887,0.000634048,0.000670628,0.000625339,0.000705466,0.000703724,0.000670628,0.00070024,0.000679337,0.000654951,0.00070024,0.000696756,0.000712433,0.000733336,0.000742045,0.000731594,0.000695014,0.000661918,0.00063579,0.000614887,0.000600952,0.000588759,0.000581791,0.000578308,0.000569598,0.000557405,0.00054347,0.000527793,0.000510374,0.000485987,0.000456375,0.000416312,0.00037799,0.000397151,0.000390183,0.000355346,0.000219478,0.000289154,0.000294379,0.000310056,0.00024909,0.000161996,0.000127158,4.18E-05,0,0.000125416,8.71E-06,7.32E-05\nSRI-1053365-001.txt,c1coc(c1)-c1ccnc2nc(nn12)-c1cccs1,0.330527583,0.324548817,0.320705324,0.318783577,0.318356522,0.319424159,0.321772961,0.325402926,0.330527583,0.336250117,0.342250237,0.348720117,0.355125938,0.361702582,0.368151109,0.374727753,0.381154927,0.38788104,0.394799327,0.402379549,0.410749823,0.42008097,0.430074051,0.441028006,0.452707954,0.46530607,0.477989597,0.491228295,0.504424287,0.518068687,0.531542266,0.545075631,0.557947062,0.570417062,0.581727607,0.591921405,0.600983507,0.608679034,0.615127561,0.620098479,0.623711362,0.625308547,0.624537713,0.620993159,0.615251407,0.607483281,0.598425449,0.589139143,0.580021524,0.571309606,0.563167807,0.55543171,0.548321248,0.542511167,0.537975846,0.535586474,0.534454779,0.534179329,0.533551558,0.531886045,0.528659646,0.524583408,0.519943458,0.515260802,0.510973172,0.507588763,0.505060599,0.503390815,0.50070464,0.493880305,0.479887855,0.457271035,0.427430582,0.394363731,0.362657049,0.336408128,0.317002759,0.305480821,0.301722739,0.304035241,0.311305848,0.322844868,0.337123444,0.35400492,0.372737677,0.393182925,0.414650968,0.436815111,0.45984831,0.483250912,0.506869176,0.530957201,0.554569059,0.578827905,0.603163622,0.627858064,0.65301159,0.678214228,0.703756374,0.729601729,0.755060599,0.779347204,0.803264407,0.8256677,0.846386263,0.86430121,0.880334982,0.895140971,0.908552626,0.920734363,0.932691897,0.944262946,0.954586995,0.965222794,0.975079219,0.983628855,0.991774925,0.997401372,1,0.999748038,0.995268233,0.987354908,0.97434682,0.957713036,0.936356027,0.912255191,0.888143678,0.866199469,0.848128646,0.835090664,0.824424971,0.811641086,0.795585962,0.777389158,0.757919731,0.736562722,0.712829152,0.686298375,0.6556999,0.621319855,0.583668571,0.543040715,0.500580794,0.456754298,0.411240936,0.368535458,0.339100708,0.321817801,0.297121224,0.252474782,0.207569973,0.171127254,0.145548808,0.129021788,0.117858577,0.108939538,0.100481718,0.091840264,0.082993825,0.073854853,0.064340072,0.053667973,0.042105465,0.030619827,0.020485818,0.013964691,0.010633664,0.008545366,0.0068222,0.005568794,0.004550269,0.003653454,0.002906108,0.002295419,0.001721031,0.001238459,0.000905356,0.000644853,0.00039289,0.000175092,0\nSRI-0000150.txt,COC1OC2COC(OC2C(NC(=S)SCC2=CC=CC=C2)C1O)C1=CC=CC=C1,1,0.974826583,0.950352428,0.925179011,0.897907809,0.868538823,0.837771313,0.805605281,0.77413851,0.742671739,0.712603491,0.686730812,0.662955919,0.643376594,0.627293578,0.615336205,0.606525509,0.601840456,0.60086149,0.603099127,0.607854106,0.616105393,0.626874021,0.639950213,0.655054263,0.670997427,0.688688745,0.705750727,0.723442045,0.740224323,0.754419333,0.766516559,0.775746811,0.782110092,0.785200828,0.784284795,0.780655628,0.772739987,0.761439919,0.747601533,0.733930969,0.720351309,0.706156299,0.691492784,0.678577422,0.667955639,0.660109924,0.65534096,0.652620832,0.651152383,0.651991497,0.654676661,0.658354777,0.663144719,0.668214366,0.673444842,0.678423585,0.682388398,0.684458212,0.684010685,0.681402439,0.675689472,0.666389293,0.653697695,0.637796487,0.61911921,0.597288264,0.572877042,0.546361043,0.518026964,0.487986686,0.457100302,0.425213974,0.393278698,0.361280488,0.330163348,0.299269971,0.269803088,0.241965484,0.21527467,0.190213135,0.167088554,0.14643936,0.127552305,0.110602204,0.095456198,0.082177221,0.070828205,0.060737861,0.052332737,0.045221246,0.039025789,0.034172913,0.029690647,0.025844708,0.02277495,0.020299564,0.018481484,0.016474603,0.014922242,0.013957261,0.013083184,0.012181137,0.011509846,0.011097281,0.01088051,0.010677724,0.009761692,0.009705751,0.009349127,0.009363113,0.009565898,0.009286194,0.009342135,0.008866637,0.008838666,0.009258223,0.009139349,0.008712799,0.008565954,0.008691821,0.008530991,0.008391139,0.008461065,0.008055493,0.008160383,0.008069479,0.007733833,0.007461121,0.00721638,0.007314276,0.006880734,0.006726896,0.006349295,0.006433207,0.006377266,0.005817856,0.005712967,0.005531159,0.004880846,0.004657082,0.004181584,0.004531215,0.004377377,0.004125643,0.003943835,0.003824961,0.003692101,0.003426382,0.003013817,0.002615238,0.002265608,0.002034851,0.001901991,0.001846051,0.001811087,0.001762139,0.001706198,0.001629279,0.001552361,0.001461457,0.001349575,0.001216715,0.001062878,0.000888062,0.000706254,0.000552417,0.000734225,0.000244742,0.00045452,0.000489483,0.000510461,0.000692269,0.00013286,3.5E-05,4.89E-05,0.000258727,0.000111882,2.8E-05,8.39E-05,0\nSRI-1053375-001.txt,CCOc1ccc(cc1)S(=O)(=O)NCC(O)=O,0.203791382,0.223172836,0.245415363,0.272087936,0.303928898,0.338354053,0.377116962,0.419479285,0.463410582,0.510110659,0.559302637,0.609417541,0.65897869,0.709278179,0.758285572,0.806831501,0.850762799,0.890817805,0.925889009,0.955699532,0.978588107,0.993816393,1,0.997784977,0.984587129,0.963452114,0.931888031,0.891676127,0.842807173,0.786877832,0.724035773,0.657132837,0.588817824,0.5218872,0.458740575,0.401205342,0.350213657,0.306060858,0.268802318,0.238622625,0.213546714,0.193306938,0.177524896,0.164733136,0.153150409,0.14248138,0.132716818,0.124392022,0.117257801,0.111572574,0.106957942,0.102177183,0.096528874,0.089745365,0.082038929,0.073206523,0.064872498,0.057830569,0.052542201,0.049348875,0.046773911,0.043866693,0.039667377,0.033576063,0.026764866,0.020018274,0.014637613,0.010687488,0.007918709,0.0058975,0.004780759,0.003553267,0.002907218,0.002464214,0.002113501,0.00201198,0.001559746,0.001467453,0.001412077,0.001402848,0.001144429,0.001042907,0.000710653,0.001015219,0.000701424,0.000461463,0.000692195,0.00049838,0.000636819,0.000470692,0.000415317,0.000369171,0.000572214,0.000590673,0.000239961,0.000239961,0.000461463,0.000673736,0.000535297,0.000323024,0.000655278,0.000701424,0.000516839,0.000729112,0.000461463,0.000664507,0.000812175,0.000461463,0.000766029,0.000655278,0.001033678,0.001061365,0.000673736,0.000618361,0.000729112,0.000802946,0.000710653,0.000276878,0.000313795,0.000655278,0.000636819,0.000562985,0.000636819,0.000590673,0.000424546,0.00049838,0.000793717,0.00087678,0.000775258,0.000655278,0.00062759,0.000461463,0.000452234,0.000230732,0.000313795,0.000581444,0.000535297,0.000387629,0.000433775,0.000452234,0.000203044,0.000646048,0.000424546,0.000424546,0.000424546,0.000387629,0.0003784,0.0003784,0.000369171,0.000313795,0.00024919,0.000203044,0.000138439,0.000101522,7.38E-05,5.54E-05,6.46E-05,7.38E-05,8.31E-05,0.000110751,0.000138439,0.000147668,0.000175356,0.000212273,0.000295336,0.000387629,0.000387629,0.000396858,0.000286107,0.000452234,0.000295336,0.000443005,0.000415317,0.000590673,0.000406088,0.000719883,0.000535297,0.00011998,0.000175356,0,0.000276878\nSRI-1053003-001.txt,COC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)c1ccc(cc1)-n1cnnn1,1,0.993872979,0.980437824,0.956335746,0.922120392,0.875909364,0.818920685,0.753295119,0.683166563,0.611856893,0.543869103,0.482820349,0.429375007,0.384049813,0.345848205,0.314437993,0.288896435,0.267378041,0.248886248,0.232572131,0.218767878,0.206292377,0.194850349,0.184589434,0.175288173,0.166725107,0.159047876,0.15210884,0.145907999,0.140504409,0.135794723,0.131993017,0.128652683,0.126068999,0.124168146,0.12316051,0.122485061,0.122654846,0.123322912,0.124234584,0.126024707,0.127741012,0.129874396,0.132207093,0.134901506,0.137806305,0.140401062,0.143446117,0.146085166,0.148506446,0.15071365,0.152739997,0.154448919,0.155792434,0.156264879,0.15619106,0.155537757,0.154770034,0.154426773,0.154312353,0.154397245,0.154024456,0.152891327,0.15056232,0.146646194,0.141120802,0.134580391,0.128198693,0.123850722,0.122053217,0.121219056,0.118495115,0.111759083,0.100571732,0.087040612,0.073812151,0.061661456,0.05143376,0.042697218,0.03552565,0.029435539,0.024389974,0.020149042,0.016517121,0.013748888,0.011331298,0.009389845,0.007810107,0.006569938,0.005625048,0.004886853,0.004237241,0.003646685,0.003277587,0.002941708,0.002635357,0.002413899,0.002402826,0.002118621,0.001948836,0.001871325,0.001801197,0.001697849,0.001516991,0.001395189,0.001428408,0.0015133,0.001443172,0.001343516,0.001266005,0.001147894,0.001195876,0.00113313,0.001015019,0.001125748,0.000933817,0.00079356,0.00083047,0.000483518,0.000616393,0.000649612,0.000808324,0.000704977,0.000538883,0.000546265,0.000284205,0.000247295,0.000317424,0.000358025,0.0004909,0.000483518,0.00041708,0.000479827,0.000346952,0.000369098,0.000306351,0.000295278,0.000369098,0.000287896,0.000258368,0.000180858,0.00011442,0.000110729,9.6E-05,8.49E-05,0.000110729,0.000155021,0.000184549,0.000221459,0.000203004,0.000173476,0.000158712,0.000132875,0.000107038,8.49E-05,8.49E-05,8.12E-05,7.38E-05,6.27E-05,5.17E-05,5.91E-05,7.01E-05,7.75E-05,8.12E-05,6.27E-05,3.32E-05,0.000118111,0.00026575,0.000118111,8.49E-05,0.000173476,0.000195622,0.000158712,0.000110729,5.17E-05,8.12E-05,0,0.000129184,6.27E-05,5.17E-05,5.54E-05\nSRI-1053119-001.txt,CC(=O)NC(Cc1c[nH]c2ccccc12)C(=O)Nc1nc(C)c(C)s1,1,0.992638249,0.973295024,0.941314624,0.893984823,0.831842107,0.755542177,0.668959639,0.578949565,0.490846989,0.410702257,0.341615055,0.284032451,0.237894837,0.202308073,0.175156027,0.155067686,0.139837505,0.128571343,0.120375062,0.114503544,0.110360696,0.107588863,0.10609863,0.10559195,0.106068825,0.107261011,0.109347338,0.112268194,0.115817929,0.120160468,0.125111022,0.130818615,0.137283246,0.144510876,0.152313736,0.160766337,0.16993127,0.17971614,0.190031533,0.200907254,0.21220024,0.223946256,0.236288366,0.248898718,0.26170578,0.27468869,0.287790819,0.300872084,0.314179865,0.326879631,0.339588338,0.351635382,0.363232375,0.374081271,0.383970458,0.393099625,0.401641641,0.41007636,0.418061028,0.426048677,0.432513308,0.437881127,0.440569507,0.441079167,0.438742482,0.434241978,0.429297385,0.425002533,0.422329055,0.419855269,0.414669258,0.404285314,0.388241465,0.368281284,0.346610316,0.325097312,0.304663237,0.285057732,0.266385112,0.248418863,0.231254359,0.214942268,0.199130896,0.184010992,0.169549771,0.155440245,0.142221878,0.129301558,0.117030979,0.105386298,0.09433473,0.084204126,0.074535494,0.065698413,0.057743549,0.05046227,0.043997639,0.038364559,0.033381219,0.02909829,0.025497887,0.022240237,0.019581662,0.017364195,0.015343439,0.013587945,0.012133477,0.010971095,0.00991601,0.00882814,0.007969766,0.007132255,0.006360314,0.005788065,0.005120441,0.004485601,0.004023629,0.003603383,0.003001329,0.002765872,0.002339666,0.002023736,0.001838948,0.001642237,0.001505135,0.001302464,0.001099792,0.000926925,0.000917984,0.000962691,0.000888179,0.000727234,0.0006408,0.000566289,0.000566289,0.000539464,0.00051264,0.000539464,0.000417265,0.000387461,0.000378519,0.000405343,0.000354675,0.000393422,0.0003815,0.0003815,0.000378519,0.000372558,0.000348715,0.000312949,0.000298047,0.000277183,0.000259301,0.000241418,0.000223535,0.000205652,0.000196711,0.000184789,0.000172867,0.000169887,0.000166906,0.000166906,0.000178828,0.000187769,0.000178828,0.000259301,0.000411304,0.000202672,0.000178828,0.000238437,0.000149023,8.64E-05,0,0.000184789,0.000172867,0.000154984,0.000137101,7.45E-05,0.000104316,7.15E-05\nSRI-1053061-001.txt,O=C(Cn1nnc2ccccc2c1=O)N1CCC[C@H]1c1nc2ccccc2[nH]1,1,0.98350916,0.967470124,0.950301579,0.932455328,0.911898254,0.89021167,0.866266067,0.841642759,0.816341744,0.79104073,0.766869225,0.738405584,0.708812434,0.673345833,0.631779881,0.585244087,0.537126979,0.489687578,0.445410803,0.407685183,0.375833013,0.349628391,0.32816771,0.311179886,0.297377279,0.284365329,0.273657578,0.264666682,0.256669754,0.249463483,0.243996657,0.238665371,0.235028351,0.232791922,0.231007297,0.229787426,0.229900377,0.23136874,0.232724151,0.237739174,0.245781282,0.254862539,0.265073305,0.276097319,0.286353265,0.296586622,0.31052477,0.327896627,0.34714347,0.368717103,0.38489168,0.389116046,0.379560395,0.364176475,0.35771568,0.36835566,0.392572345,0.414801093,0.413445682,0.385388664,0.343506449,0.302482662,0.268348883,0.243815935,0.227483227,0.21609777,0.208100843,0.202204803,0.197302731,0.194027153,0.189757607,0.185578422,0.180134186,0.176813428,0.173695981,0.169833058,0.166015316,0.163191542,0.161022884,0.158989767,0.156753338,0.153319629,0.149163033,0.144825717,0.139020037,0.132446292,0.126188809,0.119592473,0.115119615,0.110488626,0.107755213,0.105699505,0.104863668,0.104298913,0.102423928,0.098131791,0.09210021,0.083899971,0.075406059,0.065082341,0.055120067,0.045338514,0.038696998,0.031535907,0.026046491,0.020670025,0.017507398,0.014277001,0.01185985,0.010459259,0.008539092,0.006980369,0.005986401,0.005760499,0.005037613,0.004789121,0.004066234,0.002710823,0.003027086,0.003478889,0.001649084,0.002530101,0.00241715,0.002665643,0.002100888,0.001987937,0.001423182,0.001829805,0.001423182,0.001897576,0.001332821,0.001378002,0.001265051,0.00117469,0,0.000632525,0.002146068,0.001106919,0.001310231,0.002055707,0.001603904,0.001558723,0.001513543,0.000609935,0.000609935,0.000768067,0.000700296,0.000677706,0.000881017,0.000971378,0.001016559,0.000971378,0.000881017,0.000745476,0.000632525,0.000564755,0.000587345,0.000609935,0.000655116,0.000722886,0.000858427,0.000993968,0.0011521,0.00119728,0.001061739,0.001061739,0.002236429,0.001378002,0.000926198,0.000790657,0.001784625,0.0011521,0.001016559,0.000926198,0.000858427,0.000632525,0.000993968,0.001536133,0.000858427,0.001039149\nSRI-0000024.txt,[O-][N+](=O)C1=CC=C(S1)\\C=N\\NC(=O)C1=NC=CC=C1,0.291133807,0.285342472,0.277847804,0.267627801,0.256998998,0.243372328,0.228928058,0.212848587,0.196564716,0.179463245,0.164065108,0.150779105,0.137901902,0.127204966,0.117870697,0.110035361,0.103835226,0.099610959,0.096749358,0.095591091,0.096749358,0.098997758,0.102745093,0.109013361,0.115826696,0.124207098,0.133813901,0.144306437,0.155752839,0.168446083,0.181507246,0.195249743,0.209721266,0.22503083,0.241144368,0.257557692,0.274577403,0.292135367,0.309632012,0.32764647,0.345177181,0.363184825,0.38033399,0.39651566,0.412567878,0.428511082,0.443357339,0.457508636,0.471128493,0.482070709,0.492311151,0.499730873,0.505610781,0.508683596,0.509065142,0.507184662,0.502919514,0.496658059,0.48840711,0.478752615,0.466965545,0.454101968,0.439725831,0.424620668,0.407560077,0.390042992,0.370761254,0.351554462,0.331727657,0.310483679,0.29007774,0.268772441,0.248332436,0.227960564,0.207486493,0.187939034,0.168439269,0.149607211,0.13221958,0.115513283,0.099856239,0.085486915,0.072234978,0.060148122,0.049723719,0.039912517,0.031211888,0.024051073,0.017925885,0.012740937,0.008516669,0.005041868,0.002738961,0.00073584,0,6.13E-05,0.000906174,0.001996307,0.004006241,0.006935975,0.010315389,0.014335257,0.019704165,0.02553638,0.032145315,0.040028343,0.048579079,0.057681695,0.068174231,0.079722834,0.091945957,0.105593067,0.119710297,0.135197008,0.152237159,0.16997227,0.188613554,0.20864476,0.228934871,0.249844997,0.271872509,0.294009034,0.317460534,0.341218633,0.365658066,0.390540366,0.416035865,0.441258832,0.466209265,0.491200578,0.51480197,0.538246656,0.563510503,0.587820482,0.611694408,0.635874934,0.660218981,0.683493333,0.706065912,0.729708185,0.751878777,0.773579249,0.794182775,0.81486806,0.835253558,0.85341791,0.866356433,0.874293968,0.883301197,0.901267962,0.921483127,0.940124411,0.953894162,0.962615231,0.967459512,0.970975193,0.97513814,0.979273835,0.982625996,0.98661861,0.989814064,0.993745358,0.997635773,1,0.999393613,0.995217039,0.988226557,0.979226141,0.967432258,0.956435536,0.942570399,0.928037555,0.911842258,0.894693093,0.876624129,0.857260631,0.837495145,0.81480674,0.792152401,0.768476061,0.743498375\nSRI-1053071-001.txt,OC(=O)CC(CNC(=O)Cc1c[nH]c2ccccc12)c1ccc(Cl)cc1,1,0.987084696,0.962380217,0.925605031,0.875562625,0.812077041,0.735324237,0.648999328,0.558486622,0.469663111,0.388792894,0.319289553,0.260941937,0.214137156,0.177397161,0.14882161,0.126897265,0.11014608,0.097090009,0.087025222,0.079142311,0.073617235,0.069640589,0.066649305,0.064573003,0.063130149,0.062531892,0.062496701,0.062848616,0.063812865,0.065097357,0.066768957,0.069042332,0.071516299,0.074278837,0.077421444,0.080923004,0.0846146,0.088584208,0.092930366,0.097142797,0.101355227,0.105634522,0.109846952,0.113964365,0.118317562,0.122508877,0.126774095,0.13088447,0.134505682,0.137943898,0.140790895,0.143380994,0.145605101,0.147290777,0.148596384,0.149511365,0.150180005,0.150792338,0.151471535,0.152224635,0.152527282,0.152196482,0.150672687,0.147477293,0.142370997,0.136043553,0.130331962,0.126851516,0.12570779,0.124968767,0.121798007,0.113869348,0.101365785,0.086880936,0.072691697,0.059966427,0.049113349,0.040301381,0.032830211,0.026819492,0.02182229,0.017645051,0.014291295,0.01143374,0.00938911,0.007611936,0.006151486,0.004905704,0.00408926,0.003491003,0.002927938,0.002649925,0.002354316,0.002100936,0.001949613,0.001604735,0.001675119,0.001280973,0.001045189,0.001192994,0.001136688,0.00125282,0.00133376,0.00137599,0.001411182,0.00112613,0.001316165,0.001414701,0.001140207,0.001273935,0.001203552,0.001288011,0.001207071,0.001499161,0.001745502,0.001896825,0.002041111,0.001981285,0.0021678,0.002227626,0.002079822,0.001815885,0.001604735,0.001358394,0.001073343,0.001045189,0.00099944,0.001185956,0.000890347,0.000967768,0.000858674,0.000812925,0.000911462,0.001101496,0.00099944,0.000995921,0.000953691,0.001006479,0.00096073,0.001055747,0.001112053,0.00112613,0.001386548,0.001214109,0.001182437,0.001164841,0.001119092,0.001069824,0.001066304,0.001073343,0.001090939,0.001108534,0.001122611,0.00112613,0.001133168,0.001129649,0.001119092,0.001097977,0.001073343,0.001045189,0.001017036,0.000971287,0.000936096,0.000911462,0.000865713,0.000753099,0.000756619,0.00066864,0.000679197,0.000598257,0.000693274,0.000608814,0.000552508,0.000320243,0.000453971,0.000411741,0,0.000270975,0.000200592,0.000204111\nSRI-1052775-001.txt,O=C(Nc1ccc(cc1)N1CCCS1(=O)=O)c1cc2cc(Oc3ccccc3)ccc2[nH]c1=O,1,1,0.991329981,0.982659962,0.956649905,0.930639847,0.869949714,0.80925958,0.739899428,0.661869256,0.583839084,0.563898041,0.57256806,0.578637073,0.5907751,0.602046125,0.614184151,0.625455176,0.639327207,0.656667245,0.673140281,0.687879313,0.697416334,0.699150338,0.690480319,0.675741287,0.660135252,0.636726201,0.615918155,0.593376105,0.570834056,0.548898908,0.528697763,0.513091729,0.49089648,0.464539622,0.439916768,0.421709728,0.397000173,0.377579331,0.356944685,0.335789839,0.312900988,0.295907751,0.279954916,0.264088781,0.25013005,0.240246229,0.238252124,0.237558523,0.235824519,0.235217617,0.239379227,0.243627536,0.251170453,0.253944859,0.259927172,0.269204092,0.275099705,0.283943125,0.292786544,0.303884169,0.311080284,0.313941391,0.324518814,0.334922837,0.342552454,0.341945552,0.349661869,0.358591989,0.365354604,0.371857118,0.371597018,0.373244321,0.368822611,0.361019594,0.35919889,0.357204786,0.356771285,0.356337784,0.351829374,0.357118086,0.357985088,0.357031385,0.355730883,0.353389977,0.35443038,0.352522976,0.347581065,0.352436275,0.353996879,0.349401769,0.348101266,0.35000867,0.347407664,0.346367262,0.34541356,0.352002774,0.347494364,0.345066759,0.343939657,0.342985955,0.341598752,0.334489336,0.329807526,0.323998613,0.316195596,0.304317669,0.294433848,0.29105254,0.283943125,0.272411999,0.266603087,0.256285764,0.245968441,0.240159528,0.237558523,0.219178082,0.204959251,0.192214323,0.183631004,0.174960985,0.157707647,0.142795214,0.13204439,0.122247269,0.110282643,0.102306225,0.092769204,0.088087394,0.080631177,0.075862667,0.075949367,0.071354257,0.067279348,0.062510838,0.063377839,0.061903936,0.062857638,0.062684238,0.064678342,0.062510838,0.063204439,0.061903936,0.061557135,0.062250737,0.06372464,0.064938443,0.065285244,0.064071441,0.062337437,0.061123634,0.059823132,0.058782729,0.058175828,0.057742327,0.057135426,0.056615225,0.056008323,0.055401422,0.05462112,0.053580718,0.052366915,0.051239813,0.050459511,0.05019941,0.048205306,0.043870297,0.033986475,0.035200277,0.034766776,0.031472169,0.027744061,0.023669152,0.021588347,0.016386336,0.012744928,0.00910352,0.006242414,0,0.002340905\nSRI-1053307-001.txt,CC(C)C(NS(=O)(=O)c1cccc(c1)C(O)=O)C(O)=O,0.699924065,0.746881846,0.793403217,0.83835351,0.879725236,0.916994702,0.950161908,0.975386442,0.992057327,1,0.996595997,0.982892704,0.960635763,0.926857582,0.885136727,0.834163968,0.776557768,0.714325615,0.647031099,0.57755453,0.507554268,0.438775956,0.373227082,0.313002418,0.259699226,0.21398085,0.176851036,0.146913268,0.123373279,0.105558998,0.092484136,0.082455421,0.07528083,0.070576324,0.067320701,0.064990268,0.063864329,0.0628344,0.06121968,0.059360571,0.057161062,0.055668537,0.055075019,0.055502701,0.056628641,0.055293224,0.053172269,0.0503356,0.047813146,0.045552539,0.043492681,0.040821848,0.037653507,0.035768214,0.034965218,0.035000131,0.033088652,0.028794372,0.023583629,0.019149698,0.015736967,0.013450175,0.011399045,0.009950162,0.009644674,0.009234449,0.00912971,0.008379084,0.007707011,0.006519975,0.005332938,0.003788044,0.002801756,0.002120956,0.001213221,0.001195765,0.000628431,0.000558606,0.00097756,0.0003404,0.000384041,0.000314216,0.000523693,0.000576062,0.000558606,0.000619703,0.0003404,0.000174564,0.000532421,0.000549877,0.000209477,0.000165836,0.000253118,0.000279303,0.000541149,0.000462595,0.000384041,0.000296759,0.000523693,0.000427682,0.00024439,0.000139651,0.000349128,0.000174564,0.000322944,0.000322944,0.00048878,0.000183292,4.36E-05,0.000453867,0.000366585,0.000645888,0.000453867,0.000296759,0.000532421,0.000322944,0.000375313,0.000174564,0.000619703,0.000157108,0.000506236,0.000506236,0.000384041,0.000497508,0.000453867,0.0003404,0.000427682,0.000593518,0.0003404,0.000480052,0.000436411,0.000410226,0.000532421,0.000480052,0.000384041,0.000104739,0.000436411,0.00039277,0.000235662,0.000209477,0.000349128,0.000506236,0.00048878,0.000462595,5.24E-05,0,2.62E-05,7.86E-05,0.000122195,0.000139651,0.000139651,0.00014838,0.00014838,0.00014838,0.000139651,0.000130923,0.000113467,9.6E-05,0.000104739,0.000113467,0.000122195,0.000122195,0.000122195,0.000157108,0.000174564,0.000200749,9.6E-05,4.36E-05,0.000139651,0.000226934,0.000139651,0.000506236,0.000270575,0.000200749,0.000305487,0.000436411,0.000331672,0.000192021,0.000209477,0.000384041,7.86E-05\nSRI-1052800-001.txt,CCCc1cc(=O)oc2c(C)c(OCC(=O)N[C@@H](Cc3c[nH]c4ccccc34)C(O)=O)ccc12,1,0.98115712,0.959173761,0.928397057,0.88924574,0.84130108,0.783725614,0.718089583,0.647114736,0.575113999,0.506358425,0.444093176,0.389930365,0.344456215,0.307942902,0.279113296,0.257004317,0.240527266,0.22890749,0.220846925,0.215340616,0.21163485,0.208829355,0.206421653,0.204369873,0.202590268,0.200999091,0.200077884,0.200015074,0.200894409,0.202439525,0.20343401,0.203406793,0.200720635,0.194923309,0.18646495,0.176660372,0.167442016,0.16018332,0.155606594,0.154099164,0.155409791,0.159249551,0.164875197,0.171945465,0.179913909,0.1886256,0.197825113,0.207397296,0.21708463,0.2267929,0.23658701,0.246402057,0.25604333,0.265489894,0.274526102,0.283036802,0.29150563,0.300512526,0.310038649,0.319721795,0.329025991,0.337582752,0.345327175,0.351101471,0.355364149,0.357723696,0.359907377,0.363186038,0.368323863,0.374317992,0.379064304,0.379681932,0.375988728,0.369787327,0.362819649,0.356521939,0.351735848,0.348388096,0.345898743,0.343767403,0.342084106,0.340471993,0.338738448,0.336774601,0.334827504,0.332706633,0.330120971,0.327302914,0.324537198,0.320883773,0.317064949,0.312622217,0.307543014,0.301869214,0.295521257,0.288333745,0.280555823,0.272145618,0.263360649,0.254343284,0.245133303,0.235891917,0.226656813,0.217637354,0.208659769,0.199650779,0.190635508,0.181515554,0.172048054,0.162498901,0.152514268,0.142255367,0.131753602,0.121000599,0.110339716,0.099967758,0.089903566,0.08024345,0.071133965,0.062897532,0.055448314,0.048558101,0.042505349,0.037068132,0.031961711,0.027709501,0.023961862,0.020766947,0.017950983,0.015574687,0.013499876,0.011755863,0.010103971,0.008757752,0.007532965,0.006559416,0.005703112,0.004932647,0.004084718,0.003557117,0.003067202,0.002721749,0.002365828,0.002018282,0.001771231,0.00163305,0.001580708,0.001494868,0.001304346,0.001067763,0.000868866,0.000734872,0.000651126,0.000600878,0.000561099,0.000527601,0.000492009,0.000460604,0.000429199,0.000397794,0.000362202,0.000324516,0.00028055,0.000226115,0.000190522,0.000140275,0.000161211,0.000117245,0.00017168,0.000102589,0.000177961,6.28E-05,0.000100495,0,6.91E-05,7.33E-05,1.47E-05,3.14E-05,2.09E-06,6.91E-05\nSRI-1052978-001.txt,Cc1cc(OCC(=O)NC(Cc2c[nH]c3ccccc23)C(O)=O)cc(C)c1Cl,1,0.999192826,0.990044852,0.968520208,0.935695125,0.891300546,0.834798354,0.769148189,0.697847805,0.623318723,0.551749281,0.485480282,0.42545343,0.3720185,0.324691189,0.28196477,0.24340875,0.208915508,0.178377418,0.151659954,0.129624099,0.111758644,0.097660002,0.086843868,0.078933561,0.07336406,0.069570341,0.067310254,0.066126398,0.065991869,0.066675277,0.068020567,0.070089623,0.072691415,0.075761367,0.079194548,0.082988266,0.087309339,0.091606196,0.09625821,0.101122779,0.106232192,0.111503039,0.116876128,0.122370294,0.127832172,0.133318266,0.138887768,0.1441344,0.149343364,0.154081476,0.158499409,0.162747836,0.166581913,0.169708368,0.172113747,0.173808813,0.17513796,0.176434819,0.177901186,0.179375624,0.180118224,0.180150511,0.179141543,0.176249169,0.171193568,0.163931692,0.155833044,0.148972064,0.144255476,0.140625883,0.135268937,0.125841143,0.112119182,0.096263591,0.080496789,0.066481555,0.054807126,0.04518561,0.037264541,0.03063495,0.025111188,0.020682493,0.017028684,0.013937207,0.01144842,0.009478915,0.007891473,0.006785644,0.005927349,0.005152462,0.004654704,0.004251117,0.003976678,0.00365919,0.003373988,0.003182957,0.003016141,0.002755154,0.002671746,0.002569504,0.002327352,0.002354258,0.002238563,0.001859191,0.00176233,0.00162242,0.001493272,0.001686994,0.001584752,0.001767711,0.001724662,0.001748877,0.001834976,0.002023317,0.002060985,0.002157846,0.002230491,0.002330043,0.002432285,0.002351567,0.002383854,0.002268159,0.002327352,0.002114796,0.001859191,0.001816142,0.001778474,0.001676232,0.00180807,0.001735424,0.001676232,0.001708519,0.001649326,0.001563227,0.001544393,0.00175964,0.001670851,0.001692375,0.001617039,0.001797308,0.001719281,0.001670851,0.001756949,0.001740806,0.001724662,0.001678922,0.001662779,0.001643945,0.001627801,0.001595514,0.001555156,0.00152825,0.001506725,0.001490582,0.001469057,0.001444842,0.001420627,0.001393721,0.001358743,0.001321075,0.001275335,0.001224214,0.00115695,0.001089685,0.001003587,0.000944394,0.000901344,0.000718385,0.000791031,0.000737219,0.000659192,0.000489686,0.000430493,0.000414349,0.000312107,0.000217937,0.000196412,0.000126457,0,2.96E-05\nSRI-0000554.txt,CC(=O)N1C=CN=C1\\C=C\\C1=CC=C(S1)[N+]([O-])=O,0.134217746,0.130384456,0.12692698,0.121966252,0.117005524,0.111443497,0.105430493,0.099342328,0.092502537,0.085813071,0.079123605,0.072358976,0.064993047,0.058153256,0.051313465,0.044548837,0.038385509,0.031771205,0.025758202,0.020391597,0.015363223,0.010770792,0.007027697,0.003855838,0.00158593,0.000195423,0,0.000683979,0.00230749,0.005065955,0.008643692,0.013416513,0.019294224,0.02610395,0.033853208,0.042639708,0.052245481,0.063031305,0.074283137,0.086669924,0.099755722,0.113510466,0.12794919,0.142357849,0.157833816,0.173031681,0.188071705,0.203983615,0.219316773,0.234943064,0.250434064,0.265459055,0.279702356,0.293449585,0.306527867,0.318102898,0.328775978,0.337930775,0.345544741,0.351369837,0.35618024,0.359419745,0.360960577,0.361426585,0.360043594,0.357375324,0.353008381,0.347160735,0.340223233,0.331744898,0.321725732,0.310549062,0.298898869,0.28655718,0.274162877,0.262009095,0.250186027,0.23914465,0.22937352,0.220797475,0.212845278,0.206223458,0.200518622,0.19556541,0.191108272,0.18786125,0.18519298,0.18282536,0.180630614,0.179007103,0.177796986,0.176962682,0.176271186,0.175677402,0.175820211,0.175932955,0.176241121,0.176789808,0.17766921,0.178804164,0.179811342,0.181344658,0.183193656,0.184997557,0.18750047,0.189958285,0.192513811,0.195873577,0.199128115,0.203532639,0.208019843,0.21249953,0.21771581,0.22355594,0.230974482,0.238641061,0.246292608,0.255883348,0.266188132,0.277019054,0.288872186,0.301709948,0.315366981,0.330038709,0.345807809,0.362050434,0.379037168,0.396256906,0.4139652,0.431485588,0.447848472,0.46536886,0.483776166,0.502566801,0.521673118,0.540749371,0.560885415,0.580420159,0.600691495,0.619850427,0.639933857,0.66063362,0.679770003,0.699612913,0.719899282,0.738246458,0.751016573,0.75872825,0.768176181,0.78864294,0.812702469,0.835040776,0.852824232,0.864309068,0.873095569,0.880491563,0.887865008,0.895982562,0.904761547,0.914201962,0.924311323,0.935946484,0.950505468,0.965635687,0.979811342,0.990800105,0.996422263,0.998511782,1,0.999346086,0.997790221,0.994220001,0.989935736,0.983922733,0.977992409,0.970310797,0.960742606,0.950512984,0.939283701,0.927114886,0.914457514\nSRI-1052810-001.txt,COc1ccc(cc1)C1N(CCc2cc(OC)c(OC)cc12)C(=O)N[C@@H](CC(C)C)C(O)=O,1,0.988867035,0.981445059,0.974023082,0.959179129,0.944335176,0.925780235,0.903514306,0.888670353,0.864548929,0.840798605,0.824099158,0.805544216,0.785875979,0.762496753,0.736148736,0.705718633,0.673433035,0.638920845,0.601439863,0.560990092,0.521282518,0.47637956,0.433332096,0.393624522,0.356143541,0.322002449,0.290459049,0.269677515,0.253089398,0.240138049,0.231899655,0.224997217,0.220247152,0.216499054,0.213604483,0.213456043,0.212045868,0.212342747,0.213307604,0.214086911,0.214977549,0.216499054,0.219950273,0.22091513,0.22395814,0.225887854,0.229190633,0.232901622,0.235387984,0.238022785,0.240917356,0.244034586,0.245593201,0.247819794,0.248970201,0.251345233,0.251827662,0.253015178,0.250157717,0.246446729,0.244479905,0.241882213,0.242698631,0.2429584,0.243403718,0.242179092,0.237280588,0.23353249,0.226592942,0.221100679,0.214940439,0.209596616,0.200133596,0.188258433,0.174601997,0.159312725,0.146361376,0.131109214,0.11982781,0.111478087,0.106060044,0.102460385,0.099825584,0.100085353,0.099194716,0.098638067,0.101977957,0.102794374,0.10420455,0.106950681,0.108397966,0.110624559,0.111589416,0.112962482,0.114855086,0.117415668,0.117267228,0.117044569,0.116339481,0.118380525,0.11971648,0.117155899,0.1167848,0.114261328,0.114112888,0.110958548,0.106394033,0.103276803,0.10090177,0.09789587,0.092514937,0.090511003,0.085352729,0.083051917,0.079044049,0.074553754,0.070100568,0.067465766,0.062530152,0.054551527,0.049727242,0.045125617,0.036887223,0.030467213,0.0251605,0.021375292,0.016773667,0.012246261,0.010353657,0.009091921,0.006123131,0.003896538,0.00322856,0.0030059,0.001410176,0.001298846,0.001298846,0.002412142,0.000705088,0.001113296,0.000890637,0.000667978,0.000816417,0.000853527,0.001298846,0.001187516,0.001298846,0.001261736,0.001039077,0.000705088,0.000371099,0.00014844,0.00011133,3.71E-05,3.71E-05,7.42E-05,0.00014844,0.000222659,0.000333989,0.000445319,0.000593758,0.000779308,0.001076187,0.001224626,0.001410176,0.001373066,0.000927747,0.001150406,0.001669945,0.001113296,0.002449252,0.001669945,0.001855494,0.001410176,0,0.001076187,0.000667978,0.000556648,0.000853527,0.001707055\nSRI-0000583.txt,CCCN1CCN(CC1)C1=CC=CC=C1,0.497553185,0.508102327,0.52319346,0.543559163,0.568027311,0.595132743,0.62458243,0.656083338,0.689488953,0.724506242,0.758937467,0.792196566,0.825748696,0.857982184,0.887724902,0.915562914,0.940470609,0.96127586,0.978271699,0.990579031,0.997904823,1,0.997172244,0.988088261,0.974286468,0.954843814,0.9297603,0.900471781,0.865747524,0.826935474,0.78447518,0.73890875,0.690353396,0.640420794,0.589418625,0.537903651,0.487634062,0.439694075,0.392691789,0.349249839,0.308664948,0.273237414,0.241194397,0.213488249,0.190382699,0.170778878,0.154837953,0.142266893,0.133168259,0.126179453,0.120860927,0.117535017,0.115264022,0.113930727,0.113608392,0.113652347,0.114003985,0.113930727,0.114223759,0.114194456,0.11396003,0.113535135,0.112069976,0.11072203,0.107908926,0.106604935,0.103762527,0.100348708,0.097433042,0.093271992,0.088715349,0.084393131,0.081008615,0.075734044,0.071001582,0.066181211,0.061287581,0.057067925,0.051998476,0.047324621,0.043720331,0.039573932,0.035339624,0.031544863,0.028380121,0.024453496,0.021860165,0.019471957,0.016937233,0.014461115,0.012439196,0.010959386,0.009655395,0.007897204,0.007062064,0.005743421,0.005421087,0.004673856,0.003560335,0.002944969,0.002534724,0.002109828,0.001934009,0.001977964,0.002007267,0.001421204,0.001054914,0.001098869,0.001347946,0.000967005,0.000937701,0.00111352,0.000981656,0.001333294,0.001362597,0.001948661,0.000732579,0,0.000468851,0.00128934,0.001069566,0.001230733,0.001025611,0.001157475,0.000776534,0.000937701,0.000600715,0.000717928,0.000703276,0.000336986,0.000263729,0.001010959,0.001172127,0.00092305,0.000952353,0.000424896,0.000615367,0.000776534,0.00083514,0.000761882,0.000659321,0.000879095,0.000761882,0.00092305,0.000673973,0.000468851,0.000439548,0.000454199,0.000380941,0.000263729,0.000219774,0.000190471,0.000131864,0.000161167,0.000190471,0.000249077,0.000293032,0.000351638,0.000380941,0.000424896,0.000468851,0.000498154,0.000498154,0.000527457,0.000468851,0.000351638,0.000293032,0.000351638,0.000630018,0.001040263,0.000542109,0.000190471,0.000542109,0.000571412,0.001245385,0.000703276,0.000688625,0.000967005,0.000439548,0.000937701,0.001362597\nSRI-0000597.txt,CC12CCC3C(CCC4=C(C[Si](C)(C)C)C(=O)C=CC34C)C1CCC21OCOC11COCO1,0.91831357,0.91831357,0.891963109,0.891963109,0.865612648,0.839262187,0.865612648,0.865612648,0.865612648,0.865612648,0.839262187,0.839262187,0.839262187,0.865612648,0.839262187,0.865612648,0.868247694,0.878787879,0.902503294,0.923583663,0.936758893,0.947299078,0.968379447,0.989459816,1,1,0.986824769,0.984189723,0.960474308,0.944664032,0.907773386,0.855072464,0.805006588,0.732806324,0.66113307,0.588405797,0.522793149,0.448748353,0.390777339,0.339657444,0.296706192,0.255862978,0.231620553,0.219499341,0.192621871,0.17997365,0.164163373,0.140447958,0.128326746,0.128063241,0.111198946,0.110935441,0.108036891,0.103820817,0.100922266,0.091963109,0.094334651,0.107246377,0.103030303,0.105665349,0.119631094,0.12226614,0.12911726,0.126482213,0.128326746,0.144664032,0.158366271,0.154940711,0.162582345,0.167852437,0.172068511,0.181291173,0.184189723,0.188142292,0.195256917,0.211330698,0.215283267,0.223715415,0.231357049,0.235836627,0.251383399,0.268774704,0.275362319,0.292490119,0.299604743,0.308827404,0.306192358,0.320421607,0.327799736,0.34229249,0.344137022,0.358629776,0.361264822,0.368379447,0.37312253,0.377338603,0.374176548,0.383926219,0.37654809,0.373913043,0.377338603,0.382081686,0.381027668,0.368906456,0.358366271,0.37602108,0.366007905,0.343873518,0.354677207,0.352042161,0.335968379,0.361791831,0.347035573,0.342555995,0.330434783,0.316469038,0.315942029,0.304611331,0.276943347,0.254018445,0.226613966,0.213965744,0.196047431,0.192358366,0.160737813,0.147562582,0.13886693,0.127799736,0.114888011,0.095915679,0.089328063,0.070092227,0.076943347,0.057971014,0.048221344,0.039525692,0.035573123,0.029249012,0.02687747,0.026086957,0.028722003,0.027667984,0.008695652,0.015019763,0.018181818,0.013965744,0.014229249,0.014756258,0.015283267,0.016600791,0.016600791,0.016864295,0.016600791,0.015546772,0.015283267,0.014492754,0.01370224,0.013175231,0.012648221,0.012384717,0.012911726,0.012648221,0.012911726,0.013438735,0.015019763,0.016600791,0.015810277,0.014756258,0.021870883,0.018708827,0.0171278,0.014492754,0.001581028,0.008168643,0.006060606,0.009749671,0.016864295,0.01027668,0.021080369,0.01027668,0\nSRI-0000569.txt,NC1=NN=C(S1)\\C=C\\C1=CC=C(O1)[N+]([O-])=O,0.223589897,0.221606903,0.221123246,0.219962468,0.219769005,0.220107565,0.220446125,0.22107488,0.221945463,0.222477486,0.222961143,0.222816046,0.222719314,0.222574217,0.221752,0.2200592,0.217689279,0.215029165,0.211837027,0.208016135,0.203614854,0.198391356,0.192248909,0.185622805,0.178609776,0.171030867,0.163036013,0.154426915,0.14562919,0.137029764,0.127811258,0.11879105,0.110080384,0.101655075,0.093162054,0.085225239,0.077370646,0.069864286,0.062740015,0.055789861,0.04880585,0.042194256,0.035742269,0.029643351,0.023921686,0.018480542,0.013498873,0.009247526,0.005707155,0.002790702,0.00086091,0,0.00033856,0.001857244,0.004681802,0.008372107,0.013300574,0.019326943,0.026436704,0.034450904,0.043103532,0.052515501,0.062672303,0.073128972,0.08434982,0.096267134,0.108131245,0.120923979,0.133750568,0.147017286,0.160506486,0.17413111,0.187600963,0.20108049,0.214530998,0.228112092,0.241083779,0.254234419,0.267119047,0.279698972,0.291606613,0.303828631,0.315383202,0.325946275,0.335851575,0.345210343,0.354177347,0.361528937,0.368063146,0.373542983,0.378534325,0.382031167,0.3851169,0.386635584,0.387883419,0.388159104,0.387477147,0.38580853,0.38324031,0.379782161,0.375908066,0.370534635,0.364232581,0.35710831,0.349805086,0.341863435,0.332799698,0.324011646,0.315600847,0.307243251,0.298663171,0.291113282,0.284134108,0.278020681,0.273382408,0.269339034,0.267075518,0.265155399,0.265015138,0.265818009,0.267854206,0.271293009,0.275853897,0.281851246,0.288656304,0.296462531,0.305608489,0.315329999,0.325960785,0.336562551,0.347125625,0.358776928,0.371264957,0.384560694,0.39909943,0.413275423,0.428060825,0.443948964,0.45971619,0.476441057,0.49249364,0.510190658,0.527476567,0.544902737,0.562725505,0.580403177,0.593065323,0.600939262,0.610675282,0.631327446,0.657256309,0.681603614,0.701128856,0.714748643,0.725200476,0.734254539,0.743284419,0.753726579,0.765068341,0.778272183,0.792370791,0.809830817,0.830594221,0.854593293,0.879859546,0.901203339,0.916825467,0.929061995,0.939649252,0.94893547,0.958066919,0.966453535,0.973805125,0.98002012,0.98584819,0.990138229,0.994138074,0.996774006,0.998186285,1,0.999593728\nSRI-1053222-001.txt,Clc1ccccc1COC(=O)CN1C(=O)c2ccccc2C1=O,1,0.969597302,0.928139079,0.86180592,0.784417236,0.698736906,0.613056577,0.530140129,0.458279207,0.403001575,0.356015588,0.322849009,0.292446312,0.264807496,0.237997844,0.220309002,0.207318758,0.197645173,0.192670186,0.188247975,0.17857439,0.161161936,0.137392554,0.111964843,0.088195462,0.068571902,0.05392333,0.045078909,0.040103922,0.038445593,0.037063652,0.038169205,0.039274757,0.040684337,0.042563777,0.045631685,0.049666952,0.052430834,0.056300268,0.059561648,0.062767751,0.06558691,0.068461347,0.072330781,0.077278129,0.080954092,0.083717974,0.08659241,0.089660319,0.093059893,0.095022249,0.096956966,0.098864045,0.099859042,0.10176612,0.104060142,0.10386667,0.106464719,0.106243609,0.106133053,0.10690694,0.1073768,0.107542633,0.105856665,0.105829026,0.105331528,0.105524999,0.102926951,0.100467096,0.099112794,0.098615295,0.095381554,0.092645311,0.087670324,0.083552141,0.080318399,0.075149941,0.068931207,0.063541638,0.061524004,0.057295265,0.05345347,0.050081535,0.045382936,0.043144192,0.040103922,0.036621431,0.034493242,0.029462978,0.02614632,0.023769382,0.020894945,0.017661203,0.015284265,0.013266632,0.011276637,0.010005251,0.007628313,0.007379564,0.006412205,0.004864432,0.004090545,0.004173461,0.003675963,0.004366933,0.001989995,0.001796523,0.002459855,0.002459855,0.003012631,0.001796523,0.00163069,0.001575413,0.001077914,0.000138194,0.002432216,0.002625688,0.001907078,0.000442221,0.002183466,0.003178464,0.001824162,0.000912081,0.002874437,0.001077914,0.00257041,0.001962356,0.002432216,0.002211105,0.001603051,0.001520135,0.001326663,0.001879439,0.002045272,0.00257041,0.001934717,0.001188469,0.001077914,0.00140958,0.001603051,0.000801526,0.000746248,0.001989995,0.002349299,0.001299024,0.001603051,0.001575413,0.001437218,0.001492496,0.001243747,0.00093972,0.000746248,0.000580415,0.000497499,0.000442221,0.000442221,0.000442221,0.000497499,0.000497499,0.000525138,0.000580415,0.000773887,0.000912081,0.00093972,0.000773887,0.000912081,0.001603051,0.001354302,0.001547774,0.001796523,0.001547774,0.001464857,0,0.001879439,0.000552776,0.000276388,0.000773887,0.001354302,0.001520135,0.001879439,0.001547774\nSRI-1052781-001.txt,Cc1cc(OCC(=O)N[C@@H](Cc2c[nH]c3ccccc23)C(O)=O)c2c3CCCCc3c(=O)oc2c1,1,0.952852428,0.952852428,0.929278642,0.88213107,0.858557284,0.834983498,0.787835926,0.740688355,0.717114569,0.669966997,0.646393211,0.575671853,0.504950495,0.481376709,0.410655351,0.363507779,0.316360207,0.292786421,0.240924092,0.198491278,0.165487977,0.151343706,0.134842056,0.118340405,0.104196134,0.104196134,0.097123998,0.092409241,0.09476662,0.085337105,0.082979727,0.085337105,0.087694484,0.087694484,0.099481377,0.106553512,0.098302687,0.105139085,0.122347949,0.12116926,0.135549269,0.13437058,0.150165017,0.155351249,0.162187647,0.177510608,0.191890618,0.197548326,0.202263083,0.218764734,0.238566714,0.247289015,0.260254597,0.27204149,0.285007072,0.299387082,0.305280528,0.321310702,0.320603489,0.325553984,0.33262612,0.332861858,0.332861858,0.346298916,0.343941537,0.338755304,0.326496935,0.318717586,0.310702499,0.301037247,0.288071664,0.266148043,0.268505422,0.252710985,0.250589345,0.253653937,0.25766148,0.261197548,0.255068364,0.252946723,0.249882131,0.24115983,0.245403112,0.25223951,0.256954267,0.249882131,0.245403112,0.249882131,0.253889675,0.251296558,0.24776049,0.249174917,0.249646393,0.245403112,0.23903819,0.235266384,0.243988685,0.236916549,0.225601132,0.238802452,0.236445073,0.22135785,0.214992928,0.200377181,0.196841113,0.203441773,0.188118812,0.1805752,0.17515323,0.161008958,0.162187647,0.156529939,0.150165017,0.143092881,0.127062706,0.130834512,0.123998114,0.122347949,0.111504008,0.087694484,0.088637435,0.089344649,0.088637435,0.083215464,0.070957096,0.070721358,0.075200377,0.055634135,0.061291843,0.050919378,0.045968883,0.0330033,0.032531825,0.041725601,0.037953795,0.042432815,0.032531825,0.039839698,0.030410184,0.031117397,0.024281,0.030410184,0.020037718,0.022395097,0.022866572,0.019094767,0.018387553,0.017680339,0.015322961,0.012965582,0.010372466,0.009193777,0.008250825,0.008015087,0.008015087,0.008015087,0.007779349,0.007543612,0.007307874,0.006836398,0.006129184,0.005421971,0.00330033,0,0.000471476,0.004007544,0.004950495,0.008250825,0.015794437,0.01320132,0.020273456,0.020980669,0.021216407,0.027109854,0.031353135,0.025931165,0.014380009,0.012258369,0.025223951,0.025459689\nSRI-1052925-001.txt,O=C(Nc1nc2ccccc2s1)[C@H]1CC[C@H](Cn2nnc3ccccc3c2=O)CC1,1,0.99481566,0.988396953,0.981731372,0.972103312,0.958031531,0.937787916,0.908409988,0.870638365,0.824966796,0.776826492,0.730414303,0.685903038,0.644971437,0.606064197,0.568539448,0.531335634,0.495020565,0.460927355,0.429525065,0.403010867,0.38205132,0.366177364,0.355117438,0.347464364,0.341490029,0.33526882,0.327245437,0.318382683,0.309371806,0.301916231,0.297744071,0.297000983,0.299627715,0.304584932,0.311514667,0.319436833,0.327534278,0.336004503,0.344827756,0.353850977,0.363876504,0.375030242,0.387023349,0.399329986,0.412041494,0.424646848,0.436921391,0.448845373,0.46002133,0.470577634,0.480395787,0.489135104,0.497123925,0.504680719,0.511432705,0.517189791,0.521515012,0.524566367,0.525892077,0.525181082,0.521934697,0.515982581,0.508954096,0.502335422,0.498716259,0.498353355,0.499350723,0.499444535,0.496203088,0.488322891,0.47645322,0.461547007,0.444838619,0.429251036,0.418924323,0.417053023,0.421726336,0.427147675,0.424520942,0.407894022,0.379019715,0.343672389,0.306604356,0.27195815,0.241368073,0.214979781,0.192835242,0.174492552,0.159699901,0.147867261,0.13884404,0.132445083,0.12810505,0.125310443,0.123221895,0.120807473,0.11705253,0.111295443,0.103227622,0.093483531,0.08266801,0.071489584,0.060881437,0.051362,0.042686871,0.035332514,0.029145868,0.024094839,0.019858492,0.016525702,0.01362494,0.011499361,0.009677435,0.00799129,0.006702611,0.005581806,0.004710343,0.00405366,0.003396977,0.002710669,0.002493421,0.002226798,0.001639239,0.001587396,0.001375085,0.001207211,0.001083774,0.000851713,0.000836901,0.000782589,0.000715933,0.000557934,0.000464122,0.000518434,0.000412278,0.000523371,0.000308592,0.00023453,0.000244405,0.000229592,0.000251811,0.000197499,0.000249342,0.000204905,0.000227123,0.000241936,0.000217249,0.000160468,9.38E-05,5.43E-05,3.21E-05,1.97E-05,4.94E-06,1.73E-05,3.46E-05,5.18E-05,6.91E-05,7.9E-05,8.89E-05,9.13E-05,9.63E-05,9.63E-05,8.15E-05,5.43E-05,2.47E-05,7.41E-06,0,0.000111093,6.67E-05,5.43E-05,2.72E-05,0.000143187,0.000143187,0.000133312,0.000153061,0.000145655,0.000145655,0.000145655,2.47E-05,0.000101218\nSRI-1052935-001.txt,CC(C)[C@H](N1Cc2ccccc2C1=O)C(=O)NCCc1ccc(cc1)S(N)(=O)=O,0.888013003,0.917736298,0.945437341,0.968559698,0.985996856,0.996260741,1,0.999007952,0.992407015,0.978213092,0.951961966,0.913081302,0.862677615,0.8054059,0.747867096,0.693228125,0.642977061,0.597380992,0.556935944,0.521031425,0.490545016,0.465705652,0.446208086,0.431251049,0.42022405,0.412631065,0.406755086,0.40236718,0.39872331,0.395151936,0.390851788,0.386273103,0.380748157,0.374662322,0.36833229,0.361162833,0.353276049,0.344378138,0.334575937,0.323854184,0.312956915,0.302490804,0.291669846,0.280375757,0.268215534,0.255772958,0.243555501,0.232005769,0.220959692,0.210764488,0.200924131,0.191679004,0.183456449,0.175939775,0.168129302,0.15825079,0.14571664,0.131892828,0.119854703,0.111239145,0.105588285,0.099677966,0.090963203,0.079039545,0.065253888,0.051983334,0.040330581,0.031276232,0.024667664,0.01979518,0.016475634,0.013850521,0.01163749,0.009756414,0.008085194,0.006772638,0.005513499,0.0045825,0.003838464,0.00307535,0.00243815,0.002106195,0.001682667,0.001354528,0.000961524,0.000980602,0.000877581,0.000751667,0.000721143,0.000614307,0.00053418,0.000698249,0.000515102,0.000457868,0.000320508,0.000400635,0.000457868,0.000385373,0.000515102,0.000396819,0.000412082,0.000522733,0.000434975,0.000503655,0.000389188,0.000255643,9.54E-05,0.000496024,0.000507471,0.000309061,0.000324323,0.000339586,0.000259459,0.000412082,0.000381557,0.000446422,0.000324323,0.000259459,0.000286168,0.000507471,0.000251828,0.000286168,0.00053418,0.000351032,0.000545627,0.000492209,0.000419713,0.000450237,0.000320508,0.000438791,0.000423528,0.000328139,0.000297615,0.000282352,0.000469315,0.000530364,0.000496024,0.000312877,0.000293799,0.000507471,0.000297615,0.000244197,0.000282352,0.000423528,0.000289983,0.000312877,0.000316692,0.000286168,0.000240381,0.000202225,0.000175516,0.000160254,0.000152623,0.000152623,0.000160254,0.00016407,0.000167885,0.00016407,0.00016407,0.00016407,0.000156438,0.000148807,0.000144992,0.000144992,0.000141176,0.000141176,8.39E-05,7.63E-05,0.000160254,9.92E-05,0.000122098,0,0.000118283,0.000217488,0.000351032,0.000171701,0.00016407,0.00019841,6.49E-05,0.000190779,0.000312877\nSRI-1053085-001.txt,Cc1ccc(C)c(OCC(=O)NC(Cc2c[nH]c3ccccc23)C(O)=O)c1,0.993202838,1,0.995770655,0.986405676,0.965107901,0.929460562,0.87780213,0.811340989,0.730530284,0.64151767,0.552807152,0.470561491,0.396698996,0.332730148,0.278957043,0.234277031,0.198010395,0.168691969,0.14540036,0.127032918,0.112879716,0.102034466,0.093877872,0.087881264,0.083667024,0.080917949,0.079482993,0.079075163,0.079739774,0.081295569,0.083636814,0.086728768,0.090551794,0.095084746,0.100292882,0.106233602,0.112783045,0.119761465,0.127310846,0.13515175,0.143445799,0.152134082,0.16086617,0.16995171,0.179343877,0.188702814,0.197987738,0.206781755,0.215412641,0.224046547,0.232151785,0.239749502,0.246406189,0.251868087,0.255623141,0.257716667,0.2578511,0.257107943,0.257429676,0.259219595,0.261881062,0.262695211,0.259479398,0.251383222,0.239204218,0.223975554,0.208159313,0.194465297,0.185264961,0.181020511,0.179250228,0.175090364,0.163970207,0.14609216,0.124685631,0.103558541,0.084674514,0.068788791,0.055836421,0.044941325,0.035882974,0.028685535,0.022784087,0.01798378,0.014094293,0.010964578,0.008543278,0.006647625,0.005194542,0.004090381,0.003135757,0.002540628,0.002036128,0.001641892,0.001318649,0.001122287,0.000984833,0.000850401,0.000761282,0.000731073,0.00069029,0.000554346,0.000619297,0.000583045,0.000463718,0.000451634,0.000457676,0.000397256,0.00037611,0.00044106,0.000419914,0.000367047,0.000286991,0.000302096,0.000332306,0.000258292,0.000330795,0.000229593,0.000297565,0.000214488,0.00022053,0.000179747,0.000155579,0.000191831,0.000228083,0.000225062,0.000276418,0.000205425,0.000206936,0.000261313,0.000140475,0.000163132,0.000161621,0.000114797,0.000206936,0.000178237,0.000182768,0.000113286,0.000111776,0.000117817,0.000167663,0.000181258,0.000119328,0.000208446,0.000146517,0.000141985,0.000141985,0.00012688,0.000113286,0.000107244,0.000110265,0.000110265,0.000105734,0.000101202,9.52E-05,8.76E-05,8.16E-05,7.7E-05,7.25E-05,7.1E-05,7.25E-05,7.25E-05,7.4E-05,7.1E-05,6.04E-05,5.14E-05,5.89E-05,4.23E-05,8.76E-05,7.4E-05,4.68E-05,0,9.97E-05,6.04E-06,8.76E-05,0.000123859,6.04E-05,9.06E-05,1.66E-05,9.97E-05,4.53E-06\nSRI-1053095-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)Cc1ccc2OCCc2c1,0.995414645,1,0.995804888,0.982292726,0.958048883,0.920122146,0.870049097,0.808927295,0.740707949,0.669025197,0.59931805,0.535586499,0.478806149,0.430074561,0.38895271,0.354513769,0.325050427,0.299709025,0.276904203,0.255270109,0.235099427,0.215318987,0.196148302,0.178075175,0.161221558,0.145806961,0.132270409,0.120636291,0.111075339,0.103587552,0.09805098,0.094260746,0.092109531,0.091499777,0.092153434,0.094029039,0.097075373,0.100816827,0.105202182,0.110233877,0.115755815,0.121670435,0.128058224,0.134643574,0.141516728,0.148555735,0.155736206,0.162921554,0.170206902,0.177531274,0.184584916,0.191399533,0.198233663,0.204692184,0.210553145,0.215614108,0.220150683,0.224587257,0.229509196,0.234850647,0.240226243,0.245011598,0.248804271,0.250592072,0.249977439,0.246504277,0.240572584,0.234133575,0.229267733,0.22654335,0.224721403,0.220284829,0.21019217,0.194119039,0.173711771,0.151731337,0.12988261,0.109053393,0.090090024,0.072751042,0.057760835,0.045141353,0.034899915,0.026751154,0.020380438,0.015560938,0.0119268,0.009229246,0.007048763,0.005436572,0.004217063,0.003392675,0.002731701,0.002173165,0.001807313,0.001595118,0.001429265,0.001170729,0.001048778,0.000826827,0.000734145,0.000824388,0.000802437,0.000673169,0.000602438,0.000643901,0.000529267,0.000578047,0.000509755,0.000443901,0.000456096,0.000514633,0.000390243,0.000382926,0.00039756,0.000409755,0.000431706,0.000295121,0.000368292,0.000360975,0.000402438,0.000360975,0.000253658,0.000268292,0.000402438,0.000370731,0.000234146,0.000180487,0.000175609,0.000251219,0.000253658,0.000219512,0.000187804,0.000221951,0.000236585,0.000243902,0.000178048,0.000195121,0.000139024,0.000204878,0.000265853,0.000182926,0.000221951,0.000258536,0.00019756,0.000187804,0.000190243,0.000190243,0.000187804,0.000168292,0.00014878,0.000131707,0.000119512,0.000109756,0.0001,9.02E-05,7.8E-05,7.32E-05,6.83E-05,6.59E-05,6.1E-05,5.85E-05,5.85E-05,8.05E-05,0.000114634,9.51E-05,0.000119512,0.000256097,0.000158536,0.000163414,0.00017317,0.000234146,0.000234146,0.000170731,0.000139024,0.000160975,0.000112195,0,9.51E-05,9.51E-05,0.000139024\nSRI-1053381-001.txt,CC(C)C(NC(=O)c1ccc(Cl)cc1)C(O)=O,0.613094403,0.643007375,0.672359479,0.703955056,0.735831066,0.767333165,0.79855483,0.829309104,0.858848164,0.886517663,0.911850211,0.933443637,0.952513157,0.968965292,0.983080475,0.992147845,0.998410873,1,0.998597829,0.994017406,0.984669602,0.972143545,0.955317498,0.93568711,0.912130645,0.884554624,0.854548174,0.821550427,0.785841816,0.747431691,0.706890266,0.665339279,0.62191873,0.578544921,0.535152416,0.49257317,0.450162184,0.409284239,0.36999542,0.332660291,0.298288417,0.266262842,0.237275302,0.211157539,0.187937594,0.167886555,0.149518121,0.133916636,0.120605364,0.109406695,0.099460632,0.091430868,0.084055451,0.076969816,0.070033746,0.06379876,0.057965731,0.052506614,0.047870103,0.042981202,0.038961646,0.03507296,0.031408621,0.026874936,0.022369294,0.018433869,0.014648008,0.011039756,0.008413023,0.006618245,0.00523477,0.004225207,0.003365209,0.002879124,0.002215429,0.001794778,0.00153304,0.001430214,0.001103041,0.000747824,0.000411303,0.000542173,0.000336521,0.000663694,0.000364564,0.000196304,0,0.000607607,0.000439347,0.000654346,0.000981519,0.000635651,0.000523477,0.000579564,0.000588912,0.000822607,0.000990867,0.000841302,0.00068239,0.000906737,0.000654346,0.000859998,0.000906737,0.000785216,0.001000215,0.001009563,0.001261954,0.000925433,0.000990867,0.000953476,0.000972172,0.000644998,0.000897389,0.000916085,0.000336521,0.000327173,0.000757172,0.000495434,0.000710433,0.000401956,0.000803911,0.000616955,0.000532825,0.000504781,0.000448695,0.000532825,0.000149565,8.41E-05,0.000233695,5.61E-05,0.000560868,0.000439347,1.87E-05,0.000355217,0.00029913,0.000224347,0.000588912,0.000373912,0.000373912,0.000579564,0.00029913,0.000514129,0.000448695,0.00046739,0.000476738,0.000252391,0.000261739,0.000588912,0.00106565,0.00131804,0.001439562,0.001504996,0.001411518,0.001252606,0.001084345,0.000925433,0.000803911,0.000701085,0.000635651,0.000579564,0.000542173,0.000504781,0.000504781,0.00055152,0.000635651,0.000607607,0.000579564,0.000757172,0.000738476,0.000673042,0.00076652,0.000635651,0.000719781,0.000570216,0.000607607,0.000897389,0.00068239,0.000644998,0.000233695,0.000588912,0.000644998\nSRI-0000623.txt,COC1OC2COC(OC2C(OC(=O)OC)C1NC(=O)OC)C1=CC=CC=C1,1,0.937616063,0.879584494,0.820102136,0.759168988,0.69823584,0.638753482,0.580721913,0.524141133,0.474814299,0.428389044,0.387912024,0.354543872,0.322626509,0.295206592,0.27126857,0.249361653,0.22948584,0.211641133,0.19582753,0.181174559,0.168697772,0.1568013,0.146210539,0.137070566,0.128655989,0.120966806,0.115163649,0.110230966,0.107184308,0.10558844,0.104021588,0.103586351,0.104021588,0.106371866,0.110796773,0.115598886,0.119443477,0.12251915,0.125116063,0.128830084,0.134096448,0.139928621,0.144193942,0.146935933,0.148981546,0.152419916,0.155394034,0.157599234,0.157947423,0.158353644,0.159586815,0.160457289,0.159572307,0.156815808,0.152332869,0.146877902,0.141785631,0.137505803,0.133414578,0.127248723,0.118166783,0.105515901,0.091646356,0.078241063,0.066301068,0.055623259,0.048499884,0.043175487,0.039693593,0.03661792,0.03468837,0.033063487,0.031656221,0.030626161,0.029886258,0.027985724,0.026970172,0.026186746,0.025316272,0.023589833,0.023009517,0.022327646,0.020963904,0.019948352,0.019150418,0.018744197,0.017627089,0.016509981,0.015233287,0.014885097,0.014000116,0.013724466,0.012288185,0.011113045,0.011025998,0.010909935,0.010228064,0.009110956,0.00860318,0.008777275,0.007950325,0.008008357,0.007108867,0.006688138,0.006775186,0.006601091,0.006630107,0.006093315,0.005658078,0.005338904,0.004845636,0.004584494,0.005048747,0.00433786,0.004047702,0.003946147,0.003467386,0.003191736,0.003423863,0.002901578,0.003061165,0.003191736,0.002640436,0.002785515,0.001944058,0.002118152,0.002364786,0.002277739,0.002190692,0.002916086,0.002509865,0.001711931,0.001349234,0.001407266,0.001798979,0.001262187,0.001363742,0.001436281,0.001059076,0.001407266,0.00137825,0.001798979,0.001900534,0.001291202,0.00130571,0.001392758,0.00192955,0.002437326,0.002538881,0.002437326,0.002335771,0.002060121,0.001784471,0.001523329,0.00130571,0.001160631,0.001015552,0.000884981,0.000783426,0.000710887,0.000623839,0.0005513,0.000507776,0.000522284,0.000493268,0.000333682,0.000261142,0.000797934,0.000507776,0.000609331,0.000333682,2.9E-05,0.000319174,0.000913997,0.00047876,0.00047876,0,0.000348189,0.000913997,0.000188603\nSRI-0000637.txt,CCCCNCCC(O)C1=CC2=C(C=C(C=C2)C(F)(F)F)C2=CC(=CC=C12)C(F)(F)F,0.37367424,0.384450469,0.396928208,0.408555191,0.415361231,0.412808966,0.399480472,0.37707726,0.350987443,0.327166306,0.311200472,0.306067584,0.311909434,0.327421532,0.350647141,0.380366846,0.413773155,0.450015314,0.488356001,0.529731048,0.574055378,0.622094672,0.672742947,0.723759883,0.770012591,0.807729392,0.835378926,0.854804497,0.872443482,0.894081015,0.923148474,0.956515081,0.98663464,1,0.983206098,0.930303322,0.845769479,0.746707579,0.647900904,0.562487948,0.495763241,0.44679946,0.410784169,0.382612838,0.357155416,0.331281123,0.305111903,0.280031648,0.258141724,0.240840206,0.227934254,0.217949227,0.209333916,0.201053235,0.192871808,0.185308597,0.179483762,0.176001339,0.174285649,0.172830859,0.170156652,0.165769593,0.160015654,0.154267387,0.150288689,0.149355695,0.152001543,0.158214889,0.166685572,0.174986104,0.180464966,0.181471693,0.177714192,0.170814569,0.163169119,0.157608018,0.155812925,0.159147884,0.167074084,0.178485543,0.19042447,0.199462323,0.202136529,0.196510203,0.182577674,0.16205463,0.1376408,0.11254353,0.088733736,0.068153975,0.051388432,0.038247105,0.028565514,0.021314246,0.016533004,0.01361775,0.011760269,0.01067981,0.009831891,0.009122928,0.008467847,0.00772769,0.007004549,0.006255884,0.005935433,0.005666028,0.005467518,0.005476026,0.00542498,0.005189605,0.005510056,0.005873045,0.006080062,0.006278571,0.006170809,0.00570573,0.005096022,0.004608256,0.004114818,0.003663918,0.003524961,0.003264063,0.003082569,0.002781969,0.002725252,0.002600474,0.002447338,0.00230271,0.002433159,0.002169425,0.002090021,0.001931214,0.001636285,0.001335685,0.000975532,0.000969861,0.000632394,0.000587021,0.00051896,0.000243883,0.00036866,0.00033463,0.000306272,0.000190002,0.000226868,0.000277913,0.000283585,0.000292093,0.000292093,0.000280749,0.000258062,0.000243883,0.000224032,0.000204181,0.000187166,0.000167315,0.000155972,0.000144628,0.000130449,0.000119106,0.000107762,9.93E-05,9.36E-05,0.000102091,0.000124777,0.000127613,9.64E-05,0.000147464,0.000277913,0.000190002,4.54E-05,0,9.93E-05,0.000158808,0.00026657,0.000127613,0.000127613,0.000190002,0.000158808,0.000201345,0.000224032\nSRI-1053391-001.txt,CC(NS(=O)(=O)c1ccc(C)cc1)C(O)=O,0.74786285,0.795646906,0.841228152,0.883928798,0.921800205,0.952215943,0.975684354,0.99178182,1,0.998136083,0.986783133,0.965941151,0.936457371,0.897230389,0.847158797,0.790987114,0.72854589,0.663054621,0.594936923,0.525209479,0.456752887,0.391346341,0.329074565,0.271801476,0.221814608,0.178520897,0.145843041,0.119943066,0.099168862,0.083571265,0.071701502,0.062678449,0.056552939,0.052333709,0.049673391,0.048114478,0.047512942,0.047419746,0.047080852,0.04631834,0.04491193,0.045437216,0.046403064,0.047792529,0.048783794,0.048555041,0.046564038,0.044124001,0.042471893,0.04065881,0.038523778,0.035982073,0.033118418,0.031059637,0.029949759,0.029534614,0.027653752,0.023290491,0.017868187,0.014064102,0.010768357,0.008743466,0.007404834,0.005998424,0.005888284,0.005676475,0.005778143,0.005820505,0.005930645,0.00554939,0.005523973,0.005735781,0.005379943,0.006023841,0.006108565,0.006032314,0.006455931,0.00706594,0.007379417,0.007438724,0.008133456,0.008684159,0.009133194,0.009311113,0.010073625,0.010590438,0.011022528,0.011717261,0.012251019,0.01301353,0.013403258,0.014114936,0.015080784,0.015978853,0.01683456,0.017241233,0.018410418,0.019054316,0.020206556,0.020986012,0.021655328,0.022409367,0.023637858,0.024273284,0.025306911,0.02595081,0.026560819,0.027086104,0.027619863,0.028348485,0.028983911,0.029263499,0.030136151,0.030551296,0.03074616,0.031262973,0.031356169,0.031068109,0.031135888,0.031025747,0.030441155,0.030017538,0.028831409,0.028467098,0.028399319,0.027780837,0.027153883,0.02634901,0.026010116,0.02505274,0.024646068,0.024205505,0.023578551,0.021875609,0.020384475,0.019308487,0.017512348,0.015919547,0.013928544,0.012081572,0.010260016,0.008802772,0.007260804,0.005905228,0.004820767,0.003939643,0.003312689,0.003007684,0.002745042,0.002253645,0.001669053,0.001160712,0.000813346,0.000626954,0.000508341,0.000406673,0.000313477,0.000245698,0.000160975,0.000160975,0.000160975,0.000169447,0.000177919,0.000169447,0.00014403,0.000211809,0.00054223,0.000550703,0.000211809,0.00014403,0.000338894,0.000262643,0.000457507,0.000550703,0.000660843,0.000338894,0.000423618,0.000271115,0.000101668,0.000203336,0\nSRI-1052886-001.txt,COc1ccc(cc1)-c1n[nH]c(C)c1CC(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(O)=O,1,0.996100528,0.985641478,0.966506859,0.936852733,0.89610476,0.844474539,0.784078062,0.718482289,0.651586692,0.587834856,0.532033106,0.484574413,0.446698145,0.418464757,0.398665111,0.385727327,0.378653866,0.376326274,0.376930843,0.38034666,0.385243672,0.391621878,0.399239452,0.407249995,0.415502367,0.423996566,0.432288234,0.44014159,0.447626159,0.454409426,0.460213292,0.465228195,0.469218352,0.472186788,0.473897719,0.474423694,0.473698211,0.4720296,0.468807245,0.46488359,0.459793116,0.45417969,0.447236211,0.440211116,0.433213226,0.425290344,0.417222367,0.408434951,0.399571965,0.390585042,0.381576959,0.372363322,0.363158754,0.353624695,0.343800444,0.334109197,0.324487476,0.315772609,0.307329799,0.29978175,0.291925372,0.283603475,0.27427497,0.263631527,0.251213673,0.237353921,0.224165241,0.21315301,0.204589286,0.19719238,0.18812384,0.175219308,0.158004196,0.138443355,0.118655801,0.100606383,0.084700164,0.071091308,0.059299183,0.049115213,0.040472894,0.033221085,0.027102843,0.022103055,0.018161263,0.014796834,0.012124638,0.009969348,0.008204006,0.006958593,0.00590362,0.005087451,0.004446607,0.004047592,0.003702987,0.00331304,0.00294123,0.002914024,0.002675219,0.002412232,0.002348752,0.002261089,0.002076696,0.002103901,0.001707908,0.001608154,0.001853005,0.001958805,0.001819754,0.001729068,0.001756274,0.00176232,0.002004147,0.001759297,0.001837891,0.001949736,0.001973919,0.002019262,0.00213413,0.002245975,0.002224815,0.002194587,0.002128084,0.002233884,0.00211297,0.00202833,0.002161335,0.002040422,0.00217645,0.002073673,0.001913462,0.002040422,0.002004147,0.002131107,0.002022284,0.001989033,0.002025307,0.002100878,0.002025307,0.001970896,0.001973919,0.001989033,0.001898348,0.001913462,0.001862074,0.001792548,0.001753251,0.001713954,0.001659543,0.001599086,0.001538629,0.001493286,0.001457012,0.001429806,0.001399578,0.001375395,0.001339121,0.001302847,0.001260527,0.001212162,0.001163796,0.001100316,0.001027768,0.000946151,0.00087058,0.00089174,0.000858488,0.000649912,0.000637821,0.000383902,0.000377856,0.00047761,0.000299262,0.000220668,0.000196485,6.95E-05,1.51E-05,4.23E-05,6.05E-06,0\nSRI-002275.txt,[O-][N+](=O)C1=CC=CC(\\C=N\\NC(=O)C2=CC=NC=C2)=C1,0.400100863,0.409513987,0.418842059,0.425608415,0.432068108,0.440449837,0.44857162,0.456308278,0.464149752,0.472093647,0.480266342,0.488809787,0.49786354,0.507354527,0.517192307,0.527396645,0.537820798,0.548552214,0.55944954,0.567704889,0.576094404,0.587369668,0.598689254,0.610126235,0.621620715,0.633547638,0.645927369,0.658873109,0.672485481,0.687001073,0.702243194,0.718235201,0.735036392,0.747592814,0.760861388,0.778417857,0.796260625,0.814320214,0.831928193,0.849316357,0.866526033,0.88303254,0.898598094,0.913546728,0.927156705,0.940080882,0.951919161,0.959737875,0.967360732,0.976026363,0.983936717,0.990429951,0.994904719,0.998769154,0.999616671,1,0.998264238,0.996615923,0.992102224,0.988615128,0.984213433,0.980280118,0.974435548,0.969088707,0.962599067,0.956583197,0.950163634,0.943303242,0.937532343,0.930922913,0.924264368,0.917057183,0.910245307,0.906873808,0.89933181,0.891697573,0.883703366,0.875310257,0.866372102,0.856816429,0.846222772,0.834968471,0.823121209,0.809780161,0.796095315,0.78863118,0.773184218,0.757034686,0.740285604,0.722860904,0.704888763,0.686210457,0.667571084,0.648670567,0.629540053,0.610399956,0.596289255,0.582036004,0.563146868,0.544563796,0.52617119,0.507921135,0.489910061,0.472138569,0.454568923,0.437222685,0.420032176,0.407361954,0.394954072,0.378929122,0.363179091,0.348162776,0.333127893,0.317079584,0.301757803,0.287315882,0.273326769,0.259846764,0.249967058,0.240337713,0.227880119,0.215862754,0.204375461,0.193191238,0.182578415,0.172387253,0.162618353,0.153270515,0.144369496,0.138026598,0.131787319,0.123939257,0.116457752,0.109369759,0.102636944,0.096264698,0.090306927,0.084591731,0.079195177,0.074093906,0.07164659,0.066934638,0.062517969,0.058187549,0.054223088,0.050455083,0.046845202,0.043533,0.040398087,0.037335648,0.035264473,0.033116633,0.030549526,0.028017159,0.02564531,0.023506454,0.021428691,0.019538999,0.017799644,0.016222604,0.015006732,0.013998098,0.012594754,0.011354924,0.010110902,0.009012425,0.008011577,0.007057447,0.006213524,0.005369002,0.004649661,0.004259744,0.003648813,0.003018716,0.002456899,0.001954379,0.001460244,0.001087696,0.000674419,0.000318642,0\nSRI-1053405-001.txt,Nc1nccc(n1)-c1cccs1,0.687235803,0.686341169,0.680749704,0.670685066,0.658607502,0.64272774,0.622374807,0.595983091,0.564894545,0.529556485,0.492205498,0.4532889,0.413924985,0.377244973,0.343427792,0.312876026,0.284471383,0.260562278,0.239516003,0.220683948,0.204737089,0.189394109,0.17566147,0.164389077,0.153698195,0.143745387,0.13589497,0.129565431,0.124801503,0.121334795,0.118516696,0.116951086,0.114893427,0.115027622,0.116213012,0.118896916,0.122475453,0.127261748,0.133099237,0.139093288,0.146317461,0.154928317,0.16409832,0.175236519,0.184786742,0.196439355,0.208337993,0.220147167,0.233052269,0.245398224,0.258370423,0.271611013,0.285075261,0.297890899,0.310303952,0.324058956,0.336718034,0.348996891,0.360179822,0.371340386,0.381740511,0.392833978,0.402361835,0.410458276,0.41768245,0.425398671,0.431862405,0.435664602,0.440271969,0.443716311,0.445214824,0.44718302,0.44615419,0.446959361,0.447630337,0.447071191,0.447697435,0.449464338,0.450918119,0.452819217,0.45771734,0.464113976,0.470935564,0.479904274,0.489700521,0.500212476,0.514414797,0.529623583,0.544004831,0.561226544,0.578627183,0.597011921,0.615709781,0.63597325,0.654850037,0.675560824,0.698195075,0.718704569,0.737469527,0.75771063,0.777750442,0.796358838,0.815727673,0.833776923,0.852094563,0.8704793,0.887991769,0.903782067,0.921227438,0.93764398,0.952696205,0.967211648,0.978953725,0.987743508,0.995504462,0.999664512,1,0.997360828,0.99194829,0.985864776,0.979848359,0.9703876,0.961441256,0.950660911,0.938628078,0.925320391,0.909753752,0.89230838,0.872671155,0.851334124,0.826642213,0.796045716,0.756972557,0.711256738,0.660083648,0.605913534,0.550244906,0.494867035,0.440450896,0.388539733,0.340072913,0.295877972,0.254970813,0.218760484,0.186553645,0.161190758,0.145646485,0.137505312,0.127641967,0.110084767,0.089888394,0.071839145,0.059627385,0.052291382,0.047616918,0.044016014,0.040616403,0.037194426,0.033727718,0.03014918,0.026414082,0.022052739,0.017467737,0.013016931,0.009304198,0.007089978,0.005971685,0.004786294,0.003556172,0.003645635,0.004137684,0.002907562,0.002147123,0.003086489,0.002348415,0.001140659,0.001364318,0.000469683,0.000402585,0,0.000715708\nSRI-1052896-001.txt,Cn1c2ccc(cc2n(C)c1=O)S(=O)(=O)NC(Cc1c[nH]c2ccccc12)C(O)=O,1,0.98090118,0.959826088,0.936342414,0.903131774,0.865042212,0.817503597,0.764468475,0.703728979,0.637492975,0.569033665,0.502550627,0.440545081,0.384746265,0.336497428,0.295705931,0.262248257,0.23555314,0.214508927,0.198281878,0.186007374,0.177160467,0.170753022,0.166553443,0.164206619,0.163218483,0.163633809,0.16518858,0.167882795,0.171575954,0.176161523,0.181474299,0.187312023,0.193937167,0.201027044,0.208195663,0.21539825,0.222477319,0.229094744,0.23515171,0.240515437,0.244772142,0.248053063,0.250129693,0.250893954,0.25024549,0.248471477,0.245568827,0.242059399,0.237865996,0.233725088,0.229781807,0.226295539,0.223843726,0.222204038,0.221303907,0.221362578,0.222696562,0.225065001,0.228728825,0.233671049,0.239209244,0.245241507,0.2508183,0.255826916,0.259566393,0.262430444,0.264655295,0.267142619,0.270303111,0.273613367,0.275086308,0.273316926,0.26768455,0.259252969,0.249570778,0.239598323,0.229608883,0.219128464,0.206943509,0.192606271,0.175946912,0.157243347,0.137295348,0.11737514,0.098370502,0.080908282,0.065763551,0.052758753,0.04206681,0.033343421,0.026350813,0.020845042,0.016551281,0.013207058,0.010603936,0.008535026,0.006867547,0.005620025,0.004673575,0.003824396,0.003225338,0.002701935,0.002312856,0.001980904,0.001719975,0.001454413,0.001363319,0.001136357,0.001014384,0.000971153,0.000809037,0.000730294,0.000619129,0.000582074,0.000458557,0.000447749,0.000412238,0.000290265,0.000348936,0.000344304,0.000271737,0.000277913,0.000247034,0.000236226,0.000240858,0.000251666,0.00026093,0.000231594,0.00023777,0.000265562,0.000250122,0.000262474,0.000205347,0.000209979,0.00016366,0.000189907,0.000159028,0.00015594,0.000145133,0.000121973,9.73E-05,0.000134325,0.000138957,0.000112709,0.000151308,0.00017138,0.000185276,0.000176012,0.000142045,0.000120429,0.000104989,8.95E-05,8.18E-05,7.87E-05,8.03E-05,8.49E-05,8.65E-05,8.65E-05,8.65E-05,8.49E-05,8.49E-05,7.87E-05,7.41E-05,5.71E-05,4.63E-05,4.63E-05,0.000125061,0.000101902,0.000118885,7.87E-05,6.95E-05,3.4E-05,7.41E-05,8.18E-05,6.02E-05,8.18E-05,1.85E-05,1.39E-05,0,1.54E-06\nSRI-1053240-001.txt,OC(=O)C(Cc1ccccc1)NS(=O)(=O)c1ccccc1F,1,0.962498824,0.924527415,0.88455751,0.843764695,0.802031412,0.759122543,0.711981567,0.665075708,0.616524029,0.566679206,0.516481708,0.466754444,0.417732531,0.371649581,0.328740713,0.287712781,0.251034515,0.218118123,0.18849337,0.162748049,0.141234835,0.123365936,0.10773065,0.095269444,0.084806734,0.07704787,0.071052384,0.065997367,0.062588169,0.05991959,0.058403085,0.057979874,0.057591931,0.057874071,0.057521396,0.056639707,0.055805041,0.056557416,0.057544907,0.057897583,0.057109941,0.05475877,0.051937365,0.048739772,0.046341578,0.043743534,0.040969153,0.037759804,0.035055958,0.031035456,0.027297094,0.023100254,0.019350136,0.016270103,0.013401674,0.011226841,0.009545754,0.007935202,0.006818396,0.005513496,0.005466472,0.004866924,0.004384934,0.002974231,0.002915452,0.003056522,0.002339415,0.002844917,0.002539265,0.002104298,0.001492994,0.001140318,0.001516505,0.001246121,0.001775134,0.001739866,0.001034515,0.00158704,0.001210853,0.001316656,0.001058027,0.001492994,0.001281388,0.0013049,0.001528261,0.001011003,0.001034515,0.001128562,0.000928712,0.001022759,0.001281388,0.00110505,0.001058027,0.001058027,0.000975736,0.000775886,0.000834666,0.000787642,0.000670084,0.00048199,0.000376187,0.000470234,0.000799398,0.000693595,0.000446722,0.000881689,0.001210853,0.000764131,0.000905201,0.00096398,0.000893445,0.001046271,0.000952224,0.001293144,0.001316656,0.000434967,0.000505502,0.001528261,0.001093294,0.001187341,0.001681087,0.001375435,0.000834666,0.001739866,0.001516505,0.00110505,0.001504749,0.000893445,0.000916957,0.001081539,0.000905201,0.000987492,0.001575284,0.001293144,0.001058027,0.001481238,0.00068184,0.000869933,0.000834666,0.000928712,0.000740619,0.000211605,0.000599549,0.000470234,0.000646572,0.000646572,0.000517258,0.000352676,0.000164582,5.88E-05,7.05E-05,4.7E-05,2.35E-05,0,8.23E-05,0.000152826,0.000223361,0.000282141,0.000352676,0.000411455,0.000470234,0.000517258,0.000470234,0.000387943,0.000387943,0.000587793,0.000858177,0.00034092,0.000152826,0.000282141,0.000258629,0.00019985,0.000670084,0.000752375,0.000152826,0.000399699,0.00048199,0.000352676,0.000399699,0.000317408\nSRI-1026262-002.txt,CCOC1=CC=C(C=C1)S(=O)(=O)N1CCN(C(C)C1)S(=O)(=O)C1=CC=C(OCC)C=C1,0.237588381,0.245256975,0.257526725,0.272863913,0.292802258,0.31580804,0.341881259,0.371021917,0.406297449,0.44464042,0.486050827,0.530528673,0.575006518,0.622551801,0.673164522,0.722857011,0.770402294,0.817947577,0.861658564,0.901228509,0.936043926,0.963190749,0.983282465,0.995705587,1,0.993865125,0.979908284,0.958129477,0.92822196,0.890799221,0.846474747,0.795708655,0.739727918,0.68113986,0.621953651,0.563212221,0.506035184,0.45347464,0.405055137,0.3632613,0.326344688,0.295072161,0.26807871,0.245594393,0.225778746,0.20824834,0.19286514,0.178310149,0.165442248,0.154384135,0.145396543,0.13657766,0.127712765,0.1192313,0.110044324,0.100029141,0.089737887,0.079952761,0.072069447,0.064738271,0.059845708,0.055060505,0.050351988,0.044477845,0.038358307,0.031487247,0.025152988,0.019708287,0.014846398,0.011594914,0.009140964,0.007162467,0.005322004,0.00518397,0.004263738,0.003358844,0.002776031,0.003128786,0.003558228,0.002760694,0.00207052,0.001886474,0.001993834,0.001748439,0.001840463,0.001871137,0.001487707,0.001104278,0.001334335,0.001211638,0.001426358,0.001012254,0.00147237,0.001518382,0.001487707,0.000966243,0.001165626,0.001533719,0.001058266,0.001257649,0.001027592,0.001503044,0.000705511,0.000935568,0.001104278,0.001058266,0.001794451,0.001288324,0.001012254,0.000291407,0.000766859,0.001027592,0.001334335,0.002009172,0.001426358,0.001073603,0.001119615,0.000552139,0.001257649,0.000843545,0.000674836,0.000843545,0.00136501,0.001242312,0.001012254,0.000720848,0,0.000720848,0.000521464,0.000536802,0.00108894,0.000690173,0.000674836,0.000690173,0.001625742,0.000920231,0.000674836,0.001303661,0.001180963,0.000613488,0.000797534,0.000521464,0.000644162,0.000429441,0.000690173,0.00098158,0.00087422,0.000812871,0.000705511,0.000552139,0.000444778,0.000444778,0.000444778,0.000475453,0.000506127,0.000536802,0.000567476,0.000567476,0.000567476,0.000582813,0.000582813,0.000582813,0.00059815,0.000628825,0.000644162,0.00059815,0.00010736,0.000506127,0.000582813,0.000276069,0.000812871,0.000720848,0.000812871,0.00059815,0.000352755,0.000429441,0.000368093,0.000199383,0.000230058,0.000506127,0.001104278\nSRI-1053250-001.txt,OC(=O)CCCCCNC(=O)Cn1nnc2ccccc2c1=O,0.985153685,0.988393453,0.993017199,0.997735308,1,0.999182194,0.99364628,0.982259911,0.964740001,0.942344711,0.916017665,0.887331564,0.854619343,0.815679219,0.768781218,0.71260427,0.650765592,0.58735421,0.526773694,0.471760547,0.424673821,0.386079692,0.355128899,0.330437463,0.311407758,0.296218593,0.283992401,0.273150187,0.263160378,0.253573181,0.244287943,0.235619205,0.22791296,0.221008795,0.215067123,0.209443137,0.20395755,0.198113386,0.1918729,0.185509744,0.180099646,0.175535663,0.17268278,0.171883846,0.172987884,0.176353468,0.181269737,0.187676929,0.195115814,0.203705917,0.21275525,0.222204049,0.232036587,0.241809363,0.251569558,0.261483877,0.271328997,0.280985393,0.290217159,0.299124948,0.307485437,0.315043847,0.321624036,0.327216567,0.331421975,0.334545363,0.336228155,0.336803764,0.336567859,0.33502661,0.332538594,0.329125829,0.324577572,0.319947535,0.314631799,0.309416716,0.304789824,0.30041771,0.296825656,0.293695978,0.291066418,0.288119173,0.284621482,0.279824738,0.273222531,0.26491866,0.25518992,0.244879279,0.233980448,0.223852241,0.215001069,0.207338861,0.202048288,0.198720449,0.196701098,0.194452133,0.190514085,0.183292233,0.172292749,0.157594268,0.140363735,0.122170707,0.103867591,0.086838364,0.071793888,0.058746745,0.047917112,0.038889798,0.031601892,0.025562713,0.020979857,0.017249406,0.014122872,0.011647438,0.009624942,0.007945295,0.006646242,0.005454134,0.004749563,0.003909739,0.003211459,0.002717631,0.002359054,0.00197846,0.001868371,0.00154754,0.001201545,0.001135492,0.001044275,0.000962494,0.000795788,0.000824096,0.000767479,0.000607063,0.000585045,0.000610209,0.000550446,0.000345995,0.000421484,0.000427775,0.000229615,0.000412048,0.00023276,0.000283087,0.000264214,0.000267359,0.000261069,0.000226469,0.000166707,9.75E-05,3.46E-05,1.89E-05,9.44E-06,0,9.44E-06,3.46E-05,5.35E-05,7.55E-05,9.12E-05,0.000110089,0.000125816,0.000144689,0.000154125,0.000154125,0.000141543,0.000144689,0.000213888,0.000248487,0.000110089,0.000198161,0.000125816,0.000103798,4.4E-05,9.44E-05,0.00019187,0.000113235,0.000160416,0.000147834,3.46E-05,4.09E-05,1.57E-05\nSRI-1053328-001.txt,OC(=O)C(NS(=O)(=O)c1ccccc1)c1ccccc1,1,0.987280007,0.968512803,0.943594128,0.91252398,0.874155476,0.829948286,0.78031946,0.726937192,0.671469681,0.614021186,0.557094003,0.500062557,0.446576028,0.395591792,0.3475269,0.303945283,0.263908583,0.228667946,0.196867962,0.16975978,0.146196513,0.125969639,0.109079156,0.094482442,0.082388022,0.07342147,0.065601802,0.059867378,0.057573609,0.055696889,0.05519643,0.056093085,0.057104429,0.057667445,0.058543248,0.059408625,0.060743181,0.063453999,0.066978063,0.06869839,0.068364751,0.067301276,0.066852949,0.06831262,0.070460422,0.072378847,0.071815831,0.066675703,0.059544165,0.053580365,0.050212695,0.049680958,0.051057219,0.049670531,0.043748436,0.035678539,0.026691134,0.019757695,0.015420385,0.01201101,0.009539995,0.008163733,0.007517308,0.00643298,0.005755276,0.00613062,0.005338227,0.005067145,0.004347735,0.004629243,0.004410293,0.003597047,0.003419801,0.003086162,0.003127867,0.002387605,0.001907999,0.001678622,0.001334557,0.001271999,0.00118859,0.001042622,0.001167737,0.000865377,0.000781967,0.00110518,0.001126032,0.000865377,0.000865377,0.001000918,0.000907081,0.000813245,0.000479606,0.000490033,0.000625573,0.000604721,0.000708983,0.000844524,0.000354492,0.000333639,0.000636,0.000667278,0.000636,0.000750688,0.000959213,0.000604721,0.000708983,0.000260656,0.000865377,0.000823672,0.000771541,0.001042622,0.00055259,0.000531737,0.000323213,0.000740262,0.000604721,0.000406623,0.000510885,0.000917508,0.000406623,0.000427475,0.000396197,0.000281508,0.000813245,0.000917508,0.000677705,0.000333639,0.000729836,0.000792393,0.000615147,0.000636,0.000688131,0.000677705,0.000698557,0.000729836,0.000875803,0.00038577,0.000396197,0.000604721,0.000490033,0.000531737,0.000677705,0.000260656,0.000364918,0.000396197,0.00038577,0.000364918,0.000291934,0.000218951,0.000177246,0.000156393,0.000125115,0.000114688,0.000125115,0.000114688,9.38E-05,8.34E-05,0.000104262,0.000125115,0.000104262,8.34E-05,8.34E-05,0.000145967,0.000312787,0.000198098,0.00030236,0.000510885,0.000531737,0,0.000458754,0.000959213,0.000667278,0.000229377,0.00046918,0.000500459,0.000417049,0.000177246,0.000604721,0.000344065\nSRI-1053126-001.txt,OC(=O)CCNS(=O)(=O)c1ccc(Oc2ccccc2Cl)cc1,0.750586824,0.727837695,0.706639643,0.687509694,0.673550002,0.665277591,0.663726514,0.669413796,0.682597951,0.703020464,0.728406424,0.75756667,0.789622261,0.8246766,0.859317319,0.892562069,0.922704665,0.949951917,0.971666994,0.9879016,0.997725087,1,0.993588882,0.978853651,0.955949414,0.925289793,0.886512869,0.840497585,0.788639912,0.73316306,0.67573702,0.618791814,0.564395545,0.51270332,0.465204173,0.42200668,0.382831646,0.348532164,0.31842059,0.291778258,0.268465571,0.247727672,0.229166451,0.212130456,0.197043647,0.183564788,0.172360843,0.163007848,0.154440733,0.145956342,0.137084182,0.128667004,0.120694469,0.113032149,0.105773108,0.09834862,0.09029336,0.082687913,0.075914877,0.070470597,0.06488672,0.058873711,0.052509126,0.045798133,0.039175034,0.033027599,0.027469573,0.022645724,0.018711158,0.015691729,0.013437497,0.011912271,0.01068692,0.009802806,0.008898012,0.008298262,0.008019068,0.007579596,0.007274551,0.007217678,0.00685576,0.006524864,0.006261181,0.005971646,0.006023349,0.005625239,0.005185767,0.005066851,0.004787658,0.00444125,0.004296483,0.004198248,0.004136205,0.004079332,0.003975927,0.003955246,0.003779458,0.00341754,0.003200389,0.002916025,0.002678193,0.002031911,0.001876803,0.001551077,0.001473523,0.000935816,0.000780709,0.000625601,0.000682474,0.000454983,0.000630771,0.00039811,0.000429131,0.000434302,0.00080656,0.000294705,0.000320556,0.000227491,0.000299875,0.000351577,0.000274024,0.00039811,0.000284364,0.000155108,0.00039811,0.000434302,0.000372258,0.000361918,0.000325726,0.000434302,0.000372258,0.000372258,0.000149937,2.59E-05,0.000491174,0.000320556,0.000356748,0.000367088,0.000108575,0.000320556,0.000325726,0.000253343,0.00019647,0.000372258,0.000217151,8.79E-05,8.27E-05,4.14E-05,1.55E-05,2.59E-05,6.2E-05,9.82E-05,0.000124086,0.000124086,0.000108575,9.82E-05,9.82E-05,8.79E-05,8.27E-05,7.76E-05,9.31E-05,0.000103405,0.000124086,0.000134427,0.000129256,0.000129256,0.000222321,0.000351577,0.000129256,0.000320556,0.000191299,0.000211981,0.000149937,0.000165448,0.000103405,0.000180959,0.000103405,0.000268853,0.000211981,0.000263683,0\nSRI-1053136-001.txt,COc1cc2CCN(Cc2cc1OC)C(=O)N[C@@H](CC(C)C)C(O)=O,1,0.965823985,0.936063054,0.912025379,0.890113484,0.870163849,0.847434346,0.825522452,0.802465906,0.77630245,0.74981195,0.721686235,0.69257939,0.660856199,0.625699055,0.587271479,0.546227557,0.502403768,0.456617719,0.410831671,0.365372666,0.322039441,0.280504955,0.242731465,0.208391929,0.177976911,0.152140498,0.130392125,0.112404749,0.098309187,0.086731857,0.077460182,0.072456421,0.068302973,0.066406122,0.065964614,0.066406122,0.068450142,0.070788501,0.075023711,0.08046898,0.085979658,0.092357,0.100058868,0.108774569,0.118455048,0.129116656,0.140448703,0.153481375,0.167053668,0.181476273,0.197108938,0.212856068,0.22839062,0.245772967,0.262893678,0.281142689,0.298606796,0.31499166,0.331278412,0.346584034,0.360614187,0.372093404,0.380073258,0.384259411,0.385747457,0.38455375,0.381479543,0.373090885,0.362936194,0.350541256,0.333485953,0.312980345,0.28720934,0.254472316,0.216159205,0.175916539,0.137816005,0.105536841,0.079209864,0.060355823,0.046129444,0.035974752,0.028730745,0.023776041,0.020309383,0.017267881,0.015534552,0.014488014,0.012999967,0.012084246,0.010955947,0.011005004,0.010808778,0.010628904,0.009876705,0.009140858,0.008650293,0.007701867,0.007440233,0.007211303,0.006671681,0.006148412,0.00506917,0.005461621,0.004398731,0.003695588,0.003548419,0.003401249,0.003532067,0.002927037,0.003303136,0.002959741,0.00325408,0.002485528,0.002240246,0.002027668,0.001111947,0.002207542,0.002436472,0.002452824,0.002207542,0.001324525,0.002142133,0.002223894,0.001553455,0.001357229,0.001291821,0.000752199,0.00121006,0.001471694,0.000752199,0.000621382,0.001308173,0.000997482,0.001504399,0.001095595,0.000343395,0.001079243,0.000506917,0.000784904,0.00098113,0.001373581,0.000997482,0.000948425,0.000915721,0.000932073,0.000915721,0.000883017,0.000768552,0.00060503,0.000490565,0.000441508,0.000408804,0.000359748,0.000327043,0.000294339,0.000277987,0.000261635,0.000277987,0.000261635,0.000261635,0.000294339,0.0003761,0.000572326,0.000572326,0.000474213,0.000948425,0.000964777,0.000392452,0.000588678,0.000801256,0.000997482,0.000817608,0,0.000523269,0.001111947,0.00098113,0.000899369,0.000817608,0.000719495\nSRI-0000409.txt,COC(=O)NCC1=NC2=CC3=CC=CC=C3C=C2N1,0.526735804,0.53244734,0.54085599,0.551009831,0.563279056,0.578774241,0.595855964,0.616269415,0.640067481,0.668836698,0.701730913,0.73880301,0.779841452,0.823418354,0.86784141,0.91036062,0.946903872,0.974509628,0.992173081,1,1,0.992173081,0.973134628,0.935216377,0.87432506,0.78832414,0.685262651,0.573644436,0.46453295,0.365395497,0.280082077,0.210364322,0.155665791,0.114093214,0.083430729,0.061229778,0.045248055,0.034131714,0.026347103,0.020989894,0.017282684,0.015072108,0.013020186,0.011835571,0.011132206,0.010497591,0.010661533,0.010428841,0.010428841,0.01057163,0.010883649,0.011555283,0.011936052,0.012792782,0.013432686,0.014490378,0.015378839,0.016499992,0.018070664,0.019398068,0.020773067,0.022206239,0.023554796,0.025342296,0.027050468,0.02903364,0.031112004,0.033364888,0.03579229,0.038103347,0.040922096,0.043804306,0.04663892,0.049616322,0.052636032,0.055782665,0.058987472,0.062128816,0.065174969,0.068411506,0.071901889,0.075720156,0.079707654,0.083864383,0.087735535,0.091236495,0.094758608,0.098798991,0.103294181,0.107995621,0.112443215,0.115552829,0.117340328,0.11853552,0.119936962,0.122115807,0.124797055,0.127049939,0.127748016,0.127055227,0.12611917,0.126357151,0.12896965,0.133523013,0.137896568,0.139805702,0.137113876,0.129884553,0.119524462,0.10803264,0.097598511,0.089184573,0.081823038,0.076349483,0.071801408,0.06788266,0.0639692,0.060156221,0.056470165,0.052466802,0.047855265,0.043534594,0.038801424,0.034612964,0.030329312,0.026521622,0.022713931,0.019625471,0.016769703,0.013998551,0.011936052,0.010338937,0.008572592,0.007160573,0.006208651,0.005119228,0.004156729,0.003289421,0.003120191,0.00240096,0.001803365,0.00175048,0.00133798,0.001343269,0.001189903,0.000946634,0.000872596,0.000872596,0.000862019,0.000798557,0.000698077,0.000597596,0.000518269,0.000465384,0.0004125,0.000370192,0.000338461,0.000312019,0.000275,0.000253846,0.000232692,0.000211538,0.000200961,0.000200961,0.000195673,0.000153365,0.000121635,0.000312019,0.00058173,0.000142788,6.87E-05,8.46E-05,0.000317308,1.59E-05,5.82E-05,0.000163942,0.000248558,0,0.000237981,0.000222115,0.000301442\nSRI-0000421.txt,CCCCCCCNC1=CC=C(C=C1)S(=O)(=O)C1=CC=C(N)C=C1,0.457326721,0.413637974,0.373491557,0.334525918,0.300283386,0.267221632,0.238882985,0.211725115,0.19047113,0.172759476,0.158590152,0.14796316,0.140878498,0.138516944,0.137336167,0.138162711,0.14028811,0.144066596,0.148435471,0.153276656,0.158944385,0.165910969,0.172759476,0.180670681,0.188699965,0.197555792,0.207238163,0.218337466,0.230145236,0.243133782,0.258483882,0.275132837,0.29343488,0.314334632,0.336226237,0.359983469,0.385500059,0.411571614,0.438528752,0.465426851,0.491864447,0.516318337,0.539048294,0.558401228,0.572098241,0.581036722,0.58379974,0.57961979,0.570315267,0.556571024,0.540240878,0.523993388,0.509351753,0.497910025,0.491215019,0.489868934,0.494107923,0.503188098,0.515916873,0.532506789,0.552721691,0.574459795,0.597107096,0.62255284,0.647762428,0.672535128,0.698063526,0.723036958,0.7481757,0.772476089,0.7952887,0.818396505,0.840843075,0.861908136,0.882252922,0.901133546,0.918750738,0.934053607,0.949403708,0.962604794,0.974188216,0.984189397,0.991876255,0.997048058,1,0.999752037,0.996245129,0.989680009,0.979785099,0.964647538,0.945270988,0.921714488,0.894332271,0.861825481,0.824595584,0.783858779,0.739036486,0.691415752,0.641480694,0.589845318,0.538174519,0.486692644,0.435446924,0.385629945,0.338953832,0.295347739,0.254126815,0.216625339,0.183941433,0.154374779,0.128515763,0.106021962,0.086645413,0.071283505,0.057444799,0.046156571,0.037737631,0.03012162,0.023402999,0.018963278,0.015527217,0.012835045,0.010178297,0.007852167,0.006706813,0.005573267,0.004510568,0.003790294,0.003424253,0.002810249,0.002585902,0.003152674,0.002290707,0.002007321,0.001759358,0.001723934,0.00153501,0.001168969,0.000968237,0.000885583,0.000909198,0.000661235,0.000921006,0.00100366,0.000767505,0.00063762,0.000602196,0.000614004,0.000590388,0.000673043,0.000684851,0.000684851,0.000720274,0.000743889,0.000743889,0.000720274,0.000696658,0.000684851,0.000673043,0.000673043,0.000625812,0.000602196,0.000602196,0.000578581,0.000566773,0.000448695,0.000236155,0.000141693,0.000554965,0.000708466,0.000259771,0.000944622,0.000177117,0.000673043,7.08E-05,0.000755697,0.000826544,0.000944622,0.001074507,0,0.000649427\nSRI-1053237-001.txt,CCC(NS(=O)(=O)c1ccc(C)cc1)C(=O)N1CCCCC1,0.912045937,0.929008506,0.945971076,0.962933645,0.977383241,0.989319864,0.997487027,1,0.997047256,0.987686431,0.970849511,0.945656954,0.913365248,0.873283325,0.825788131,0.771570734,0.712892809,0.650445425,0.585422242,0.518200209,0.453365499,0.389850101,0.330418284,0.27638936,0.228831342,0.18774423,0.153693442,0.125673791,0.103245505,0.085968814,0.072775705,0.063031651,0.055417342,0.050234335,0.04689208,0.044919396,0.04410268,0.043581238,0.042745675,0.042167691,0.041093395,0.040314373,0.040842097,0.042180256,0.043436742,0.043537261,0.042167691,0.040465151,0.038549009,0.037493561,0.036230791,0.034314649,0.032128363,0.03026248,0.029288703,0.028987146,0.027799766,0.02491613,0.021190647,0.017565683,0.014751153,0.013042331,0.011509417,0.010830915,0.010774373,0.010234083,0.010604747,0.010202671,0.010114717,0.010007916,0.010271778,0.010592182,0.010265496,0.009976504,0.010133565,0.009970221,0.009662382,0.009279154,0.009524169,0.009461344,0.009128375,0.008983879,0.008807971,0.00818601,0.008072926,0.007959843,0.007482378,0.007149409,0.00653373,0.006382952,0.005905487,0.005660472,0.005032229,0.004435398,0.0041841,0.003731765,0.00348675,0.002688881,0.002500408,0.002230264,0.002129745,0.001865883,0.001689974,0.001501502,0.001181097,0.000992624,0.000854411,0.000973777,0.000772739,0.000923518,0.000948647,0.00118738,0.001049166,0.000785304,0.000829281,0.000640808,0.000735045,0.000571701,0.000892105,0.000760174,0.000716197,0.001030319,0.000936083,0.000709915,0.001093143,0.001080578,0.000841846,0.001093143,0.001168533,0.001042884,0.000992624,0.001024037,0.00118738,0.001017754,0.001005189,0.000967495,0.000860693,0.000892105,0.00090467,0.000577984,0.000741327,0.000848128,0.000540289,0.000854411,0.000810434,0.000753892,0.000590549,0.000427205,0.000251297,0.000119366,4.4E-05,0,3.14E-05,0.000106801,0.000194755,0.000276427,0.000345534,0.000395793,0.00043977,0.000477465,0.000521442,0.000552854,0.000571701,0.000559137,0.000534007,0.000546572,0.000621961,0.000797869,0.000483747,0.000477465,0.00074761,0.000615678,0.000621961,0.00067222,0.000797869,0.000446053,0.000559137,0.000785304,0.000653373,0.000791587,0.000665938\nSRI-1053227-001.txt,CC(C)C[C@H](NS(=O)(=O)c1ccc(NC(C)=O)cc1)C(O)=O,0.160409798,0.140794309,0.128032425,0.121356068,0.118756425,0.119819916,0.12306947,0.12815059,0.135476857,0.144575608,0.154915098,0.167027072,0.180616115,0.195977643,0.213525234,0.232608978,0.253287958,0.275444007,0.299431623,0.325368972,0.353019722,0.382206624,0.41292968,0.445484302,0.479102414,0.514374845,0.550828932,0.587631607,0.626059059,0.664409704,0.702346769,0.739976603,0.776755645,0.812181691,0.845722996,0.876895081,0.905916551,0.931422596,0.9530469,0.971522091,0.985276567,0.994895246,0.999935009,1,0.994138986,0.98141846,0.961773429,0.935983788,0.90664327,0.874124098,0.839749725,0.803868742,0.766835643,0.729666655,0.692509483,0.657337493,0.622000071,0.585557801,0.54719534,0.505092937,0.458772023,0.409751025,0.359211599,0.30885533,0.260868281,0.216036253,0.175452279,0.139843076,0.109279544,0.083803042,0.062858189,0.046586787,0.034634337,0.025423328,0.019066019,0.014380753,0.011278906,0.008726529,0.00683588,0.005541967,0.004555284,0.003822657,0.003255462,0.002871424,0.002434211,0.002144706,0.001825658,0.001524336,0.001518428,0.001116665,0.001187564,0.001175748,0.001152115,0.000868517,0.000915783,0.000673544,0.000596736,0.00075626,0.000330864,0.000537653,0.000472662,0.000555378,0.000779893,0.000561287,0.000502204,0.000608553,0.000750352,0.00072081,0.000644003,0.000626278,0.000862609,0.000827159,0.000921692,0.000833067,0.000401763,0.000271781,0.000638094,0.000531745,0.000744443,0.000454938,0.00037813,0.000502204,0.000827159,0.000295414,0.000838976,0.00079171,0.000360405,0.000803526,0.000602645,0.00058492,0.000649911,0.000673544,0.000638094,0.000537653,0.000490387,0.000850792,0.000773985,0.000466754,0.00058492,0.00037813,0.000496296,0.000301322,0.000112257,0.000460846,0.000425396,0.000407671,0.00041358,0.000336772,0.000212698,8.86E-05,4.73E-05,4.14E-05,3.54E-05,1.77E-05,1.18E-05,5.91E-05,9.45E-05,0.000118166,0.00013589,0.000141799,0.00017134,0.000183157,0.000177248,0.000165432,0.000159524,0.000259964,0.000466754,0.000407671,0.000159524,0.000100441,0.000319047,6.5E-05,4.73E-05,0.000194973,0.000301322,0.000153615,0.000301322,0.000147707,0,0.000153615,0.000366313\nSRI-0000410.txt,COC(=O)NC1=NC2=CC=CC=C2N1C1=CC=CC=C1,1,0.986807595,0.972672875,0.958224051,0.944403436,0.931053979,0.915505787,0.901371068,0.88864982,0.875457415,0.861322696,0.848444396,0.834309676,0.818290327,0.798972877,0.778241955,0.756568718,0.732696747,0.707882462,0.682597019,0.655426947,0.628256875,0.600458593,0.571717997,0.543291505,0.515493223,0.488794308,0.462409499,0.43674713,0.413189264,0.390620828,0.369371633,0.348562185,0.331145069,0.315439825,0.300818243,0.289431941,0.280087321,0.273726697,0.269768976,0.269077945,0.26972186,0.271826363,0.27708762,0.284971652,0.2970961,0.31093242,0.325679644,0.34048969,0.355064156,0.370832221,0.389725629,0.412843749,0.440406452,0.46894288,0.496505583,0.520204796,0.53558023,0.539318078,0.532800402,0.526424073,0.534418042,0.565420194,0.609630456,0.640648312,0.635748276,0.593077128,0.532502002,0.473591632,0.42644449,0.392159942,0.368240856,0.34986572,0.337741272,0.331820395,0.332385784,0.337081652,0.340473984,0.337788388,0.321344997,0.289683225,0.247153425,0.198278705,0.151005921,0.109229972,0.076861464,0.052376989,0.036703155,0.024704349,0.016506211,0.012375732,0.00931321,0.006627613,0.005732414,0.004617342,0.003486564,0.002842649,0.002638481,0.002073092,0.002135913,0.00224585,0.001837514,0.001491998,0.001350651,0.001570524,0.001272125,0.001146483,0.00098943,0.001036546,0.000848083,0.00125642,0.001884629,0.000785262,0.000486863,0.000518273,0.001397767,0.000691031,0.001162188,0.000863788,0.001020841,0.000392631,0.001225009,0.001225009,0.000738146,0.000251284,0.000753852,0.000785262,0.000345515,0.000753852,0.000596799,0.000345515,0.001303535,0.001036546,0.000502568,0.000926609,0.000424042,0.000424042,0.000800967,0.000769557,0.000533978,1.57E-05,0.000376926,0.000581094,0.000926609,0.00065962,0.000455452,0.0002984,0.000345515,0.00032981,0.000251284,0.000157052,6.28E-05,1.57E-05,3.14E-05,0,1.57E-05,3.14E-05,7.85E-05,9.42E-05,0.000125642,0.000157052,0.000188463,0.000251284,0.0002984,0.000251284,0.000141347,0.000141347,0.000486863,0.001601935,0.000125642,0.000172758,0.000172758,0.000471157,0,0.000392631,0,0.000188463,0.00032981,0.000518273,0.000675325,0.001005136\nSRI-1052999-001.txt,COC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)CN1Cc2ccccc2C1=O,1,0.99135144,0.976937174,0.953153635,0.921236332,0.878611288,0.82569034,0.763400119,0.694417561,0.621934394,0.549348269,0.479850915,0.414883759,0.358050368,0.308218191,0.266004983,0.230484113,0.201346704,0.177563165,0.158618701,0.142968927,0.130510883,0.120832733,0.113110805,0.106727344,0.102197146,0.098799498,0.095710726,0.094887054,0.096163746,0.097368367,0.100055598,0.103309104,0.107551016,0.112420979,0.117682186,0.1239318,0.1299652,0.136750201,0.14414266,0.151833701,0.159112905,0.166793649,0.174772975,0.182371353,0.188775405,0.195714845,0.201593806,0.206494656,0.211354323,0.215400614,0.218231987,0.220754484,0.222597451,0.222916624,0.22134135,0.218499681,0.215163808,0.211694088,0.207287441,0.202911682,0.198185862,0.193357083,0.188178243,0.182947923,0.176132035,0.169316146,0.162726767,0.157640591,0.155571114,0.154242942,0.151946956,0.14738587,0.140158145,0.130479995,0.120647406,0.112070918,0.105141775,0.099077487,0.09421782,0.090202417,0.085497189,0.081471491,0.077847332,0.074326133,0.070866709,0.067850009,0.065512839,0.063000638,0.061209151,0.059129378,0.056473035,0.053075387,0.048555485,0.043469308,0.038218397,0.032802751,0.027067932,0.022620102,0.018306118,0.014712847,0.012025616,0.010048803,0.00756749,0.005765706,0.005590676,0.004509606,0.003232914,0.003099067,0.002779894,0.002172436,0.001966518,0.001637049,0.001297284,0.000803081,0.000669234,0.000978111,0.000463316,0.000597162,0.000525091,0.000473612,0.000617754,0.000535387,0.000473612,0.000494203,0.000731009,0.000391244,0.000494203,0.000432428,0.000751601,0.000586867,0.00045302,0.000288285,0.000339765,0.000257398,0.000380948,3.09E-05,0.000329469,0.000545683,0.000288285,0.000844264,3.09E-05,0,0.000154439,8.24E-05,0.000102959,0.000185326,0.000164734,0.00017503,0.000102959,0.000113255,0.000144143,0.000133847,0.000113255,8.24E-05,7.21E-05,5.15E-05,8.24E-05,9.27E-05,0.000113255,0.000123551,0.000144143,0.000133847,0.000154439,0.000185326,0.00017503,0.000267694,0.000607458,0.000247102,0.000339765,0.000308877,0.000555979,0.000514795,0.000195622,0.000154439,0,9.27E-05,0.000483908,0.000102959,4.12E-05,3.09E-05\nSRI-0000404.txt,CNC(C1=NC2=C(C=CC=C2)N1C)C1=CC=CC=C1,1,0.918434724,0.845123076,0.773267952,0.706267903,0.6421809,0.582220712,0.525173569,0.474195271,0.428314803,0.389231441,0.354032141,0.325387192,0.304267612,0.288974122,0.279992232,0.274894402,0.273923387,0.276593679,0.28241977,0.289216876,0.298441521,0.308879934,0.32077487,0.334126329,0.348084673,0.362164393,0.375297373,0.387119483,0.396222751,0.404549206,0.411443414,0.417366607,0.423095596,0.427101034,0.429649949,0.429115891,0.424649221,0.416808273,0.406005729,0.393892314,0.383769481,0.375345924,0.369034325,0.363936496,0.362358596,0.366048454,0.371510414,0.379764043,0.388066223,0.3945963,0.399135796,0.404039423,0.41120066,0.423095596,0.441253581,0.458052144,0.470602515,0.472665922,0.459363014,0.436325678,0.409792688,0.391197747,0.388964412,0.400568044,0.408773122,0.391610429,0.344686119,0.27889984,0.208404137,0.149075108,0.102393552,0.069476137,0.049011992,0.03388843,0.024105452,0.017429723,0.014176822,0.011530805,0.009030441,0.008180803,0.007136962,0.005801816,0.004757974,0.004660873,0.003592756,0.003665582,0.003738409,0.003374278,0.002840219,0.003301452,0.002864495,0.002354712,0.002791669,0.001917755,0.001359421,0.000922464,0.00126232,0.001359421,0.001772103,0.001407972,0.002354712,0.002500364,0.001723552,0.001723552,0.002063407,0.001480798,0.001529349,0.001747827,0.001966306,0.00225761,0.002403263,0.001140943,0.001407972,0.001650726,0.001723552,0.00126232,0.002184784,0.002451813,0.001602175,0.000509783,0.00126232,0.000995291,0.001796378,0.001772103,0.00189348,0.002378987,0.0015779,0.001990581,0.001990581,0.001844929,0.001796378,0.00220906,0.001650726,0.001189494,0.00126232,0.001602175,0.00094674,0.001966306,0.00189348,0.001140943,0.002111958,0.002330436,0.001966306,0.000995291,0.000873914,0.001043841,0.001043841,0.00094674,0.000825363,0.000655435,0.000534058,0.000485508,0.000461232,0.000412681,0.000388406,0.000436957,0.000485508,0.000534058,0.000582609,0.000655435,0.000752537,0.000922464,0.001116667,0.001213769,0.000922464,0.000364131,0,0.001917755,0.00063116,0.000388406,0.000242754,0.001165218,0.001553624,2.43E-05,0.000267029,0.000922464,0.000582609,0.001432247,0.001238044,0.001116667\nSRI-1053151-001.txt,OC(=O)CC[C@H](NC(=O)CCn1nnc2ccccc2c1=O)C(O)=O,0.983474352,0.986448969,0.992067689,0.997466067,1,0.999008461,0.993389741,0.980720078,0.962652036,0.939405958,0.911753041,0.881676362,0.848184382,0.808302485,0.761369646,0.706835008,0.645469769,0.581019743,0.518662965,0.460713027,0.410904724,0.369689759,0.335900317,0.309316059,0.288394588,0.271747753,0.258262824,0.246606734,0.235854045,0.225134409,0.215340208,0.205865503,0.197922175,0.19072801,0.183952494,0.177738851,0.172164199,0.166898026,0.160408955,0.154757183,0.149369822,0.145271461,0.142208708,0.141095981,0.142649392,0.144742641,0.14888507,0.154558875,0.161279305,0.168605676,0.177187996,0.185428785,0.194033139,0.202483254,0.211374053,0.220474176,0.229243786,0.237671867,0.246529614,0.254550062,0.262085757,0.268905341,0.275152036,0.279371585,0.283602151,0.285948793,0.28759034,0.287689494,0.287369998,0.286235237,0.284141988,0.281431782,0.278225806,0.274446942,0.270447735,0.265963776,0.2614688,0.257954345,0.255056848,0.252622069,0.250484752,0.247278777,0.24335669,0.238993919,0.232802309,0.22558611,0.216805482,0.207837564,0.198428962,0.189670368,0.181969417,0.175105764,0.17056672,0.1683633,0.166104795,0.163537811,0.159241142,0.152884276,0.142572272,0.129715318,0.1143685,0.099462366,0.084082496,0.069606029,0.058269434,0.047737088,0.038394588,0.03094703,0.024931694,0.020326547,0.0170104,0.013925613,0.011589988,0.00987132,0.008659439,0.007227217,0.005982285,0.00485854,0.004428874,0.003712762,0.003128856,0.003040719,0.002335625,0.001751719,0.001828838,0.001696633,0.001685616,0.00144324,0.000826282,0.001145778,0.001388154,0.000914419,0.001123744,0.000727129,0,0.001156795,0.001145778,0.000517804,0.000550855,0.000716111,0.000782214,0.000495769,0.000782214,0.000727129,0.000528821,0.000561872,0.000572889,0.000495769,0.000407633,0.000374581,0.00034153,0.000330513,0.00034153,0.000352547,0.000330513,0.00034153,0.000363564,0.000363564,0.000374581,0.000385598,0.000374581,0.000385598,0.000363564,0.000352547,0.000374581,0.000396616,0.000462718,0.000661026,0.00026441,0.000539838,0.00034153,0.000694077,0.000451701,0.000616958,0.000407633,0.000363564,0.000198308,0.000143222,0.000308479,0.000561872,0.000143222\nSRI-1053029-001.txt,COc1ccc(cc1OC)C(=O)NCCC(=O)NC(CCSC)C(O)=O,0.979127531,1,1,1,0.979127531,0.979127531,0.895637654,0.833020246,0.749530369,0.645168023,0.561678147,0.47818827,0.436443331,0.45105406,0.474013776,0.496973492,0.519933208,0.540805677,0.555416406,0.574201628,0.590899603,0.601335838,0.605510332,0.611772073,0.607597579,0.599248591,0.58672511,0.570027134,0.551241912,0.522020455,0.488624504,0.4573158,0.428720518,0.394907118,0.353997078,0.329576289,0.294093091,0.272176999,0.27092465,0.24775621,0.219160927,0.197871008,0.170528073,0.161135462,0.156543519,0.148611981,0.138384471,0.123565018,0.11166771,0.107075767,0.101231476,0.106032144,0.10853684,0.107493216,0.108328115,0.113754957,0.109371739,0.111041536,0.115424755,0.108328115,0.123147568,0.123773742,0.122521394,0.127530787,0.129826759,0.137340847,0.127739512,0.120434147,0.119390524,0.120016698,0.123982467,0.115424755,0.126069714,0.115842204,0.113337508,0.115424755,0.098935504,0.089334168,0.090169067,0.086829472,0.090795241,0.087246921,0.087664371,0.090795241,0.08808182,0.083698602,0.083281152,0.087455646,0.08140263,0.088290545,0.092047589,0.08808182,0.084116051,0.089542893,0.086620747,0.083907326,0.085785848,0.092465039,0.101022751,0.096639532,0.089125444,0.079941557,0.083489877,0.075349614,0.073888541,0.072636193,0.069922772,0.062826132,0.069296598,0.059486537,0.059903987,0.063869756,0.060530161,0.047380505,0.038196619,0.042788562,0.040283866,0.031308704,0.032143603,0.02713421,0.025464412,0.022959716,0.026508036,0.016071801,0.014819453,0.014402004,0.008557712,0.005426842,0.012106032,0.009601336,0.010853684,0.019202672,0.009810061,0.010853684,0.004800668,0,0.015863077,0.006470465,0.009810061,0.011897307,0.012314757,0.011271133,0.010436235,0.014402004,0.015236903,0.010436235,0.011688583,0.012732206,0.01377583,0.01335838,0.012106032,0.010436235,0.008766437,0.007305364,0.006470465,0.006261741,0.006053016,0.005426842,0.005009393,0.004174494,0.003757044,0.004174494,0.005009393,0.005844291,0.005426842,0.004800668,0.00354832,0.012940931,0.008766437,0.007931538,0.002295972,0.012940931,0.009810061,0.006261741,0.012732206,0.017115425,0.005426842,0.007722814,0.013567105,0.017324149,0.010436235\nSRI-1053039-001.txt,COc1ccccc1Oc1ccc(cc1)S(=O)(=O)NCCCCC(O)=O,0.988,0.994666667,1,0.986666667,0.96,0.922666667,0.873333333,0.824,0.772,0.721333333,0.669333333,0.629333333,0.598666667,0.569333333,0.554666667,0.548,0.538666667,0.544,0.541333333,0.544,0.554666667,0.556,0.565333333,0.566666667,0.572,0.576,0.573333333,0.573333333,0.569333333,0.572133333,0.562933333,0.565733333,0.558533333,0.548133333,0.542666667,0.536933333,0.529866667,0.523066667,0.510933333,0.5028,0.489066667,0.482133333,0.4732,0.454933333,0.4444,0.4336,0.421333333,0.408933333,0.390266667,0.3732,0.367333333,0.350266667,0.336266667,0.322933333,0.302533333,0.291466667,0.2836,0.266133333,0.2588,0.248133333,0.2336,0.220533333,0.2088,0.198266667,0.186266667,0.164933333,0.1528,0.134933333,0.131066667,0.1344,0.1272,0.1224,0.119333333,0.115333333,0.1052,0.093466667,0.077333333,0.0708,0.062266667,0.047333333,0.046666667,0.031733333,0.021466667,0.018666667,0.014,0.009333333,0.009333333,0.009066667,0.005733333,0.005333333,0.006133333,0.005466667,0.003333333,0.005466667,0.003333333,0.004133333,0.0012,0.002533333,0.006933333,0,0,0.003333333,0.000933333,0.0048,0.0092,0.003333333,0.001466667,0.001466667,0.0068,0.0028,0.009866667,0.0048,0.0016,0.0068,0.0024,0.0056,0.0072,0.002133333,0,0.005866667,0.002933333,0.004133333,0.006266667,0.008,0.01,0.0072,0.0092,0.008133333,0.006666667,0.005333333,0.008133333,0.006533333,0.0064,0.0004,0.0016,0.004666667,0.004533333,0.0052,0.002266667,0.0012,0.006133333,0.0044,0.008133333,0.007066667,0.0052,0.006,0.0064,0.006,0.0056,0.003733333,0.002266667,0.0012,0.000933333,0.001066667,0.001733333,0.0024,0.002933333,0.003066667,0.002933333,0.002933333,0.0032,0.003866667,0.0044,0.0048,0.0048,0.004533333,0.006933333,0.012533333,0.001733333,0.006533333,0.002133333,0.002933333,0.004933333,0.008266667,0.0104,0.0112,0.005733333,0.002666667,0.004666667,0.008933333,0.006666667\nSRI-1053090-001.txt,COC(=O)c1sc(c(C(=O)OC)c1C)S(=O)(=O)NC(C)C(O)=O,0.916100809,0.91464013,0.909284304,0.89943408,0.883778591,0.862767276,0.83632523,0.804602264,0.76872198,0.728459657,0.685538148,0.640893786,0.594901104,0.549620036,0.505762194,0.466136577,0.43044356,0.400668167,0.37669804,0.358308458,0.345948861,0.338420743,0.335724104,0.33703497,0.341754089,0.349357114,0.359956404,0.373252334,0.389057637,0.407035232,0.426934183,0.448728272,0.472518624,0.497425084,0.523492597,0.551054498,0.580032135,0.608919884,0.639024865,0.669373294,0.699320971,0.729081382,0.758703216,0.78720145,0.815010543,0.841894539,0.86720924,0.890958393,0.912876078,0.933542822,0.951217046,0.966190885,0.978453103,0.988048644,0.994812715,0.998835202,1,0.998602991,0.994048667,0.987655384,0.979205915,0.968838835,0.956127177,0.941561579,0.925149532,0.906261821,0.885066985,0.861325323,0.836295267,0.808377559,0.777257593,0.744309904,0.708879059,0.671137345,0.630919966,0.589504081,0.54645523,0.501911992,0.457365009,0.412892932,0.369462058,0.327645422,0.288532916,0.251551504,0.217570103,0.186764744,0.158955652,0.134292638,0.112764467,0.09375316,0.077490927,0.063430949,0.052000195,0.042202405,0.034172413,0.027700478,0.022048772,0.017707931,0.014127394,0.011202289,0.008928872,0.007142349,0.005625489,0.004535598,0.0038914,0.003089899,0.002464429,0.002258435,0.002078659,0.00179776,0.001734089,0.001456934,0.001352065,0.00117978,0.001258432,0.001284649,0.001303376,0.0014045,0.001382028,0.001134836,0.001423226,0.0014045,0.001119854,0.00095506,0.00079401,0.000767793,0.001063674,0.000827718,0.000764048,0.000659178,0.000749066,0.000775284,0.000677905,0.00050562,0.000651688,0.000741576,0.000827718,0.000734085,0.000666669,0.000479403,0.000644197,0.000749066,0.000764048,0.000936333,0.000707868,0.000692886,0.000659178,0.000606744,0.000554309,0.000531837,0.000524347,0.000531837,0.000539328,0.000550564,0.000558055,0.000565545,0.000576781,0.000580527,0.000573036,0.0005618,0.000546819,0.000535583,0.000509365,0.000494384,0.000486893,0.000438204,0.000318353,0.000299627,0.000329589,0.000408241,0.000382024,0.000464421,0.000415732,0.0002809,0.000250937,0.000419477,0.000299627,0,0.000164795,0.000101124,0.000243447\nSRI-0000612.txt,CCCCCCCCCCCCCCC\\C=C\\C(O)C(CO)NC(C)=O,1,0.903225806,0.806451613,0.741935484,0.661290323,0.596774194,0.548387097,0.483870968,0.435483871,0.387096774,0.35483871,0.306451613,0.274193548,0.225806452,0.209677419,0.177419355,0.14516129,0.112903226,0.096774194,0.079032258,0.064516129,0.056451613,0.04516129,0.035483871,0.033870968,0.032258065,0.022580645,0.019354839,0.019354839,0.017741935,0.016129032,0.014516129,0.012903226,0.014516129,0.014516129,0.014516129,0.011290323,0.015483871,0.018709677,0.017580645,0.018870968,0.028064516,0.032903226,0.040645161,0.047903226,0.055967742,0.061129032,0.061774194,0.056935484,0.065,0.062419355,0.05983871,0.059516129,0.060322581,0.056129032,0.049516129,0.047741935,0.04516129,0.049032258,0.055967742,0.047903226,0.047419355,0.048709677,0.05,0.043548387,0.042258065,0.042741935,0.038064516,0.037258065,0.029516129,0.030483871,0.02983871,0.028709677,0.025806452,0.023548387,0.021612903,0.03016129,0.026612903,0.022580645,0.024516129,0.023548387,0.030483871,0.028225806,0.028870968,0.025806452,0.020967742,0.028870968,0.028709677,0.026451613,0.014677419,0.01,0.005967742,0.005483871,0.011129032,0.002258065,0.006774194,0.005806452,0.005967742,0.005322581,0.000483871,0.001451613,0.003548387,0.005806452,0.003709677,0.005967742,0.00516129,0.005645161,0.005967742,0.000322581,0.010322581,0.009193548,0.005806452,0,0.002258065,0.006612903,0.005322581,0.005322581,0.008387097,0.008870968,0.009516129,0.013870968,0.010806452,0.008387097,0.00983871,0.010806452,0.023064516,0.02,0.016451613,0.010645161,0.011451613,0.01516129,0.017096774,0.012903226,0.009193548,0.018064516,0.018064516,0.021129032,0.017419355,0.009032258,0.006451613,0.00483871,0.010483871,0.003548387,0.006774194,0.009193548,0.018225806,0.016774194,0.004516129,0.00483871,0.004677419,0.003870968,0.003064516,0.002580645,0.002419355,0.002580645,0.002580645,0.002903226,0.004677419,0.005967742,0.006935484,0.007419355,0.007258065,0.007580645,0.007258065,0.007258065,0.010322581,0.008225806,0.001290323,0.006451613,0.003064516,0.014516129,0.012096774,0.005,0.014516129,0.014032258,0.013548387,0.012580645,0.014354839,0.016451613,0.016774194,0.017419355\nSRI-0000606.txt,CC12C[C@@H](O)C3C(CCC4=CC(=O)C=CC34C)C1CC[C@]2(O)C(=O)CO,0.322015408,0.333966647,0.347879115,0.362894774,0.379381355,0.397216281,0.417747896,0.439260126,0.46254972,0.487371524,0.514093269,0.541918204,0.570356024,0.600080901,0.630112219,0.660327403,0.69078774,0.720941635,0.751034242,0.780881695,0.809932399,0.838002488,0.864172637,0.888933153,0.912529189,0.933673688,0.951851829,0.96749263,0.980326422,0.990714807,0.997389114,1,0.999748718,0.995709812,0.988514553,0.97711491,0.962951159,0.94582105,0.926037153,0.90290078,0.878066719,0.850738219,0.821123662,0.791031055,0.758198856,0.725305369,0.690916446,0.655804318,0.619975117,0.583195945,0.546496448,0.509925657,0.473373253,0.43755018,0.402615789,0.368177834,0.335149513,0.303114064,0.273070488,0.244320097,0.217389972,0.192231082,0.168972132,0.14752119,0.128907902,0.111538768,0.096235053,0.083389004,0.071750336,0.061815485,0.053946054,0.046707893,0.04075066,0.036086613,0.031778038,0.028670716,0.025967897,0.023694097,0.021953507,0.020231302,0.018735865,0.017871699,0.017117851,0.01654174,0.015640801,0.014917598,0.014617285,0.013936983,0.013655057,0.013195394,0.012576381,0.012257681,0.011914466,0.011460932,0.010982882,0.010578379,0.010535477,0.010137102,0.009659053,0.009285193,0.008899076,0.00856199,0.008341352,0.007998137,0.007538474,0.007703952,0.007642664,0.007103326,0.006839786,0.006717209,0.006380123,0.006214644,0.006049166,0.006030779,0.005957233,0.005754981,0.005804012,0.005374993,0.005479183,0.005381122,0.005332091,0.005129839,0.005031778,0.004945974,0.004878557,0.004872428,0.004725336,0.004615017,0.004474054,0.004523084,0.004455667,0.004431152,0.004284059,0.003897943,0.004204385,0.003695691,0.003671175,0.003989875,0.003726335,0.00370182,0.003303445,0.003352476,0.003658918,0.003242157,0.002886684,0.002917328,0.002874426,0.002825395,0.002708947,0.00248218,0.002243156,0.002034775,0.001875425,0.001783493,0.001722204,0.001667045,0.001605756,0.00153221,0.001440278,0.001336087,0.001207382,0.001054161,0.000876424,0.000649657,0.000398375,0.00015935,0.000110319,0.000239025,0,0.000281927,6.74E-05,0.000220638,0.000404503,4.9E-05,2.45E-05,4.9E-05,0.000128706,0.000245154,0.000208381,3.68E-05,0.000239025\nSRI-1053080-001.txt,CC(C)[C@H](NC(=O)C1CCN(CC1)S(=O)(=O)c1ccccc1)C(O)=O,1,1,1,1,1,0.981781745,0.945345236,0.908908727,0.854253962,0.763162689,0.672071416,0.599198397,0.508107123,0.446165057,0.378757515,0.364182911,0.344142831,0.322280925,0.30041902,0.276735289,0.26398251,0.238476954,0.220258699,0.20386227,0.18382219,0.16378211,0.149207506,0.129167426,0.110949171,0.092730916,0.076334487,0.063581709,0.056840955,0.061759883,0.070140281,0.064856987,0.070140281,0.082528694,0.092730916,0.098196393,0.097467663,0.107669885,0.119876116,0.127709965,0.138640918,0.145017307,0.153944252,0.161413737,0.171251594,0.175441793,0.189652031,0.193295682,0.201311714,0.203315722,0.216068501,0.218619056,0.214064493,0.218983421,0.214975405,0.215157588,0.218801239,0.216432866,0.210785207,0.209692111,0.1931135,0.167607943,0.154308617,0.139369648,0.132628894,0.124066314,0.116414647,0.123337584,0.109127346,0.101111314,0.089451631,0.065950082,0.046638732,0.030606668,0.015303334,0.011659683,0.016396429,0.019129167,0.019857898,0.012388413,0.012206231,0.015667699,0.015303334,0.011295318,0.012206231,0.014028056,0.011659683,0.012752778,0.006740754,0.00783385,0.00783385,0.009109127,0.010566588,0.00929131,0.013117143,0.014210239,0.012752778,0.007651667,0.0114775,0.022590636,0.013299326,0.006558572,0.011841866,0.01074877,0.009109127,0.014574604,0.010202223,0,0.005283294,0.004372381,0.019129167,0.010384405,0.019493533,0.014756786,0.014756786,0.010202223,0.005101111,0.012752778,0.005283294,0.010930953,0.01074877,0.009109127,0.014392421,0.011295318,0.010202223,0.017307342,0.010384405,0.015849882,0.012206231,0.007469484,0.010566588,0.013663691,0.008198215,0.0114775,0.007469484,0.009473492,0.010566588,0.009655675,0.007105119,0.006922937,0.00929131,0.005829842,0.007105119,0.008926945,0.010566588,0.010202223,0.00929131,0.008380397,0.007651667,0.006922937,0.006194207,0.005283294,0.004918929,0.005101111,0.005647659,0.006194207,0.006740754,0.007287302,0.008016032,0.008380397,0.009109127,0.010202223,0.010566588,0.017489525,0.00783385,0.007651667,0.005101111,0.009655675,0.013845874,0.012570596,0.007651667,0.004918929,0.008380397,0.004372381,0.007651667,0.019857898,0.010202223\nSRI-1052784-001.txt,CC(C)(C)OC(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(=O)N1CCC(CC1)C(=O)NCC(O)=O,1,0.998236934,0.986347537,0.963066018,0.925363519,0.872381112,0.802807796,0.719808052,0.628151199,0.534188797,0.444769682,0.365612519,0.297757063,0.242152659,0.197804756,0.163628391,0.137408428,0.117449611,0.102305322,0.090551546,0.08157799,0.074751758,0.069417352,0.065326133,0.062274672,0.060036934,0.058680729,0.058432091,0.058850255,0.059901313,0.06153328,0.063698687,0.066501511,0.069659208,0.073160477,0.077050525,0.08125024,0.085859077,0.090962928,0.09639905,0.101970792,0.107736923,0.113509836,0.119402547,0.125220666,0.130833094,0.136477167,0.142098637,0.147659077,0.153059033,0.158054388,0.162717473,0.16692849,0.170691958,0.173594237,0.175621763,0.176806182,0.178067453,0.179579622,0.181668177,0.183720568,0.185225955,0.186064542,0.185302807,0.182608479,0.17791149,0.171159849,0.164453415,0.160133903,0.158569746,0.158160624,0.155791786,0.148583557,0.136201405,0.120580184,0.104825603,0.090438529,0.077816781,0.067233862,0.058183454,0.050450825,0.043913917,0.038423547,0.033896083,0.030112271,0.027155744,0.024845675,0.02302384,0.021520713,0.019940734,0.017956154,0.015128467,0.011414725,0.007786877,0.004938846,0.002850291,0.001796972,0.001742723,0.001498606,0.001243188,0.001216064,0.001039757,0.000904137,0.000834066,0.000825025,0.000571866,0.000499535,0.000391039,0.000381998,0.000345832,0.000293844,0.000305146,0.000377477,0.000296105,0.000237336,0.000146922,0.000183088,0.000230555,0.000174046,0.00019891,0.000212472,0.000187608,0.000108496,0.000212472,0.000216993,0.000155964,0.000108496,0.000178567,0.000110757,0.000151443,0.000126579,0.000110757,0.000113017,0.0002622,0.000167265,0.00019665,0.000142402,9.04E-06,0.000110757,8.82E-05,7.46E-05,0.0001311,0.000212472,0.00013562,0.000142402,0.000117538,0.000117538,0.000119798,0.000110757,8.59E-05,7.91E-05,8.82E-05,9.72E-05,0.000103976,0.000110757,0.000115277,0.000122058,0.000126579,0.000128839,0.000128839,0.0001311,0.00013562,0.000137881,0.000137881,0.000140141,0.000126579,0.000124319,0.000115277,0.000115277,0.000212472,0.000137881,1.81E-05,0.0001311,0.000128839,0.000155964,0.000122058,7.69E-05,0,0.000142402,7.23E-05,0.000137881\nSRI-1052858-001.txt,O=C(CCCn1nnc2ccccc2c1=O)NC(c1nc2ccccc2[nH]1)c1ccccc1,1,0.982929901,0.964255399,0.943267571,0.920302225,0.893698988,0.863252647,0.829784059,0.794412574,0.757847115,0.721561494,0.686786997,0.652758733,0.618058859,0.581400121,0.541812415,0.500415093,0.459428198,0.420829252,0.386017443,0.35652255,0.332475164,0.313222331,0.298111096,0.286339257,0.276768807,0.268877384,0.261957931,0.255848141,0.250180495,0.245003498,0.240893615,0.237216548,0.234289445,0.232091787,0.230909006,0.230343734,0.230164638,0.230330675,0.23079334,0.232629075,0.237048645,0.244007276,0.253243785,0.263131384,0.273000326,0.282746141,0.293064689,0.305653654,0.321662236,0.34129938,0.362257357,0.379497225,0.385476424,0.378278998,0.364740451,0.356604636,0.363259176,0.384381325,0.407104146,0.412331514,0.391936943,0.354492794,0.312897719,0.275849074,0.246204934,0.224504454,0.209829765,0.19995336,0.193311879,0.188737466,0.184838394,0.181418777,0.178073784,0.174723194,0.171503195,0.168458561,0.165723614,0.163365515,0.161395457,0.159772399,0.157977706,0.155923698,0.153244718,0.149606828,0.145116366,0.139924444,0.134279185,0.128436174,0.122874866,0.11790868,0.113668206,0.110610513,0.108603144,0.107314025,0.106095798,0.104004477,0.10024719,0.094613124,0.087033254,0.077901217,0.068295322,0.058469288,0.049365235,0.04106898,0.033819318,0.027838254,0.022845949,0.018588685,0.015249289,0.012532998,0.010273775,0.008538781,0.007027657,0.005925097,0.004996036,0.004109883,0.003525955,0.00291964,0.002479362,0.002186465,0.001785364,0.001509258,0.001335759,0.001182781,0.000983163,0.000964507,0.000792873,0.000675342,0.000660417,0.000596987,0.000507439,0.000496246,0.000429084,0.000442144,0.000374983,0.000356327,0.000369386,0.00027051,0.00030409,0.000263047,0.000195886,0.00022387,0.000249988,0.000197752,0.000249988,0.00027051,0.000285434,0.000292897,0.000283569,0.000274241,0.000264913,0.000242526,0.00022387,0.00020708,0.000194021,0.000184693,0.000171634,0.000158575,0.000152978,0.000145516,0.000138053,0.000130591,0.000132457,0.000121263,0.000113801,0.000123129,0.000205214,0.000152978,0.000184693,0.000128725,8.95E-05,3.17E-05,0.000128725,0.000169768,9.33E-05,0.000156709,0,9.14E-05,0.000104473,7.65E-05\nSRI-1052942-001.txt,CC(OC(=O)CCN1C(=O)c2ccccc2C1=O)C(=O)Nc1cccc(Cl)c1C,1,1,0.898425597,0.847638395,0.796851193,0.69527679,0.69527679,0.644489589,0.644489589,0.593702387,0.542915185,0.542915185,0.492127984,0.492127984,0.441340782,0.405789741,0.38039614,0.3702387,0.37531742,0.349923819,0.334687659,0.319451498,0.319451498,0.304215338,0.309294058,0.299136618,0.278821737,0.283900457,0.273743017,0.273743017,0.268664297,0.268664297,0.273743017,0.238191976,0.226003047,0.229050279,0.234636872,0.217369223,0.206703911,0.202640934,0.189944134,0.199593702,0.183341798,0.167597765,0.179786694,0.19146775,0.157948197,0.1361097,0.129507364,0.151345861,0.121889284,0.114271204,0.100558659,0.097003555,0.100050787,0.100050787,0.096495683,0.087861859,0.092940579,0.089385475,0.080243779,0.083291011,0.082275267,0.06297613,0.067039106,0.093448451,0.108176739,0.111731844,0.112239716,0.101574403,0.090401219,0.155916709,0.144235653,0.12849162,0.116302692,0.121889284,0.13103098,0.139664804,0.160995429,0.156424581,0.132046724,0.135093956,0.144235653,0.148806501,0.146267141,0.156424581,0.144235653,0.130523108,0.149314373,0.154900965,0.177247334,0.149822245,0.151345861,0.165566277,0.189436262,0.188420518,0.179278822,0.206703911,0.218892839,0.215845607,0.214321991,0.229558151,0.221940071,0.213306247,0.216861351,0.211274759,0.205180295,0.235652616,0.227018791,0.206196039,0.218892839,0.233113255,0.224479431,0.203148807,0.161503301,0.202640934,0.221432199,0.223463687,0.190959878,0.204672423,0.175723718,0.132554596,0.114271204,0.126968004,0.111731844,0.089385475,0.094464195,0.070086338,0.031995937,0.044692737,0.047232098,0.055865922,0.036566785,0.044692737,0.056881666,0.05281869,0.044692737,0.044184865,0.031488065,0.035551041,0.034027425,0.041137633,0.00507872,0.001523616,0.013204672,0.030980193,0.033011681,0.014220416,0.007110208,0.001523616,0.004062976,0.00507872,0.003555104,0.00253936,0.00253936,0.00507872,0.00761808,0.008633824,0.009649568,0.011173184,0.0126968,0.016759777,0.020822753,0.024885729,0.026917217,0.022854241,0.015744033,0.012188928,0.020314881,0.006602336,0.013204672,0.042661249,0,0.013204672,0.038090401,0.020822753,0.037582529,0.060944642,0.028948705,0.037582529,0.013204672\nSRI-1053384-001.txt,CC[C@H](C)[C@H](N1Cc2ccccc2C1=O)C(O)=O,0.897223969,0.915281646,0.933339323,0.946096487,0.956248316,0.963076094,0.971880334,0.983828946,0.995238523,1,0.988859941,0.961369149,0.921300871,0.880334202,0.845925793,0.822567604,0.807384781,0.801006199,0.79974845,0.799928129,0.802713143,0.805228641,0.80639655,0.807833977,0.806576229,0.803970892,0.797861827,0.790674692,0.779265115,0.765349025,0.749160004,0.730248855,0.709999102,0.688105292,0.664827958,0.640544425,0.61483245,0.588410745,0.560830114,0.533285419,0.505767676,0.478420627,0.451998922,0.426331866,0.401347588,0.378115174,0.356481897,0.336196209,0.31811158,0.302470578,0.289183362,0.278384691,0.268466445,0.257407241,0.243491151,0.225640104,0.205120834,0.186065942,0.17303926,0.166498967,0.16322882,0.156392058,0.140418651,0.115928488,0.089192346,0.065097476,0.046123439,0.031856976,0.022621508,0.016710089,0.012766149,0.009738568,0.007887881,0.00623484,0.005381367,0.00460875,0.003952924,0.00327913,0.002776031,0.002335819,0.002219028,0.001904591,0.001733896,0.001608121,0.001383523,0.001087054,0.001185877,0.001248765,0.000790585,0.000799569,0.001176893,0.000952295,0.000979247,0.001042135,0.000880424,0.000628874,0.000862456,0.000736681,0.000557003,0.000422244,0.000530051,0.000395292,0.000997215,0.000772617,0.000592939,0.000637858,0.000898392,0.000655826,0.001015183,0.000548019,0.000440212,0.000404276,0.000691762,0.00070973,0.000269518,0.000404276,0.000565987,0.000431228,0.000889408,0.00066481,0.000898392,0.000637858,0.000844488,0.000826521,0.000521067,0.000494116,0.000961279,0.000521067,0.000718714,0.000539035,0.00061989,0.000754649,0.000601923,0.00066481,0.000260534,0.000440212,0.000557003,0.000467164,0.000332405,0.00041326,0.000655826,0.000574971,0.000467164,0.000557003,0.000592939,0.000557003,0.000494116,0.000449196,0.000404276,0.000323421,0.00025155,0.00020663,0.00020663,0.000224598,0.000233582,0.000242566,0.00025155,0.000278501,0.000287485,0.000287485,0.000287485,0.000287485,0.000296469,0.000296469,0.000242566,0.000215614,0.000305453,0.000404276,0.000512083,0.000476148,0.000179678,0.000170694,0.000296469,0.000386309,0.000197646,0,0.000125775,0.000485132,0.000296469,0.000548019,0.000592939\nSRI-1053133-001.txt,CSCC[C@H](NC(=O)Cc1ccc2OC(C)(C)CCc2c1)C(O)=O,1,0.981768002,0.965041398,0.951660115,0.943296814,0.938780631,0.939616961,0.947980263,0.958852555,0.97173204,0.984109727,0.9911349,0.99197123,0.98394246,0.965041398,0.934431714,0.892615204,0.842937192,0.782386886,0.716484068,0.647904993,0.579994982,0.513255833,0.449694739,0.391653425,0.338128293,0.290122941,0.248139165,0.211842435,0.180981852,0.155707954,0.135502216,0.120180647,0.107652421,0.098737141,0.092899557,0.089303337,0.087245965,0.087179058,0.08845028,0.090424019,0.093434808,0.096780129,0.101714477,0.107568788,0.113205654,0.119779209,0.127975245,0.136723258,0.146106883,0.155507234,0.165877729,0.17710128,0.187856486,0.199029857,0.209550891,0.221376599,0.233319394,0.245830894,0.257238438,0.268077277,0.275554069,0.280287698,0.281943631,0.280722589,0.278079786,0.274450113,0.271305511,0.268411809,0.263326921,0.253909844,0.238521368,0.214100527,0.184427532,0.151057958,0.119545036,0.091544702,0.069432132,0.052956427,0.041783056,0.034055365,0.027883248,0.024604834,0.022146023,0.02043991,0.018767249,0.017847286,0.016174626,0.014987037,0.014535419,0.014200887,0.013230743,0.013180564,0.012143514,0.011976248,0.011507903,0.01142427,0.010822113,0.010420674,0.010403947,0.009316718,0.007577151,0.006138664,0.004917621,0.004415823,0.004014385,0.00260935,0.002358451,0.002626077,0.001271222,0.000735971,0.000468345,0.000953416,0.000903237,0.001070503,0.00078615,0.001020323,0.000451618,0.001789747,0.001103956,0.001103956,0.001003596,0.000133813,0.00083633,0.000217446,0.000669064,0.001204315,0.000953416,0.001237769,0.001421761,0.000518525,0.001421761,0.001020323,0.000602158,0.001137409,0.001421761,0.001187589,0.000869783,0.00093669,0.000970143,0.001371582,0.000602158,0.000752697,0.001137409,0.000618884,0,3.35E-05,8.36E-05,0.000217446,0.000217446,0.000284352,0.000367985,0.000418165,0.000401438,0.000351259,0.000317805,0.000301079,0.000284352,0.000301079,0.000284352,0.000317805,0.000317805,0.000317805,0.000250899,0.000183993,1.67E-05,0.00010036,0.000451618,0.000719244,0.000652338,0.000217446,0.000669064,0.000217446,0.000669064,0.001455215,0.000618884,0.000903237,0.000551978,0.000535251,0.000970143,0.000685791\nSRI-1053123-001.txt,O=C(CCCn1nnc2ccccc2c1=O)Nc1nnc(s1)C1CC1,0.976568133,0.983777938,0.990146599,0.995674117,1,0.999879837,0.994592646,0.983537611,0.969959144,0.951093487,0.930785869,0.907113675,0.881999519,0.8518385,0.816630618,0.775174237,0.72927181,0.683369382,0.639269406,0.59937515,0.566810863,0.542177361,0.523672194,0.510694545,0.502643595,0.498317712,0.496875751,0.497957222,0.500192261,0.503364576,0.507354001,0.511415525,0.515392934,0.520415765,0.524969959,0.529379957,0.532864696,0.535700553,0.536914203,0.536938236,0.536697909,0.534811343,0.533501562,0.531759193,0.52999279,0.528598894,0.526736361,0.52430906,0.521004566,0.517303533,0.512412882,0.507089642,0.50085316,0.493979813,0.485844749,0.476964672,0.468120644,0.458267243,0.447945205,0.437551069,0.426435953,0.416017784,0.405094929,0.393895698,0.382828647,0.372074021,0.360646479,0.350456621,0.340543139,0.329800529,0.319262197,0.309060322,0.299579428,0.289557799,0.27976448,0.270836337,0.263914924,0.256765201,0.250504686,0.246539293,0.242141312,0.238296083,0.234871425,0.230016823,0.224549387,0.218108628,0.210814708,0.202607546,0.193811584,0.186241288,0.177986061,0.171184811,0.166450373,0.162809421,0.159913482,0.157462149,0.154361932,0.149062725,0.14172074,0.131639029,0.119166066,0.105695746,0.092189378,0.078911319,0.066522471,0.055383321,0.04605864,0.03850036,0.031266522,0.025018025,0.020884403,0.01777217,0.014900264,0.012316751,0.009805335,0.008856044,0.007354001,0.005948089,0.005275174,0.004638308,0.004181687,0.003652968,0.002931988,0.002535448,0.002283105,0.002078827,0.00161019,0.0012497,0.001213651,0.001333814,0.000684932,0.000925258,0.000732997,0.000720981,0.000745013,0.001273732,0.001309781,0.000925258,0.00049267,0.000372507,0.000781062,0.000444605,0.000420572,0.000720981,0.00075703,0.00062485,0.000636866,0.000576784,0.000540735,0.000432588,0.000336458,0.000252343,0.000204278,0.000192261,0.000192261,0.000180245,0.000168229,0.000180245,0.000180245,0.000204278,0.000216294,0.000252343,0.000312425,0.000372507,0.000372507,0.000204278,0.000336458,0.001021389,0.000300409,3.6E-05,0.000480654,0.000865177,0.000877193,0.00075703,0.000973324,0.000480654,0.000480654,0.000552752,0,0.000396539,0.000504686\nSRI-004796.txt,CSCCCNS(=O)(=O)C1=CC(N)=CC=C1,1,0.936389839,0.87577153,0.833140868,0.794329266,0.747686293,0.707240307,0.672490508,0.643895277,0.621214228,0.604646504,0.594127296,0.589499881,0.589937052,0.594209781,0.601126747,0.609139586,0.61711354,0.624023435,0.628379827,0.631372859,0.633638842,0.633541039,0.630810782,0.625428039,0.617091151,0.60546782,0.590063136,0.57074041,0.547207408,0.519596106,0.488208164,0.453630405,0.426199392,0.397664257,0.359121321,0.320675011,0.283368173,0.248108145,0.215527704,0.186091125,0.160083569,0.137354208,0.1178453,0.101316462,0.087554411,0.076440131,0.06964218,0.064324247,0.059021632,0.055666845,0.054094914,0.054052494,0.055312159,0.057655915,0.060809203,0.064562275,0.068835004,0.073608535,0.078825129,0.083023621,0.087422435,0.093541651,0.099878865,0.10630092,0.112823135,0.119348886,0.125891134,0.13234854,0.138730531,0.145018253,0.151108011,0.157048117,0.159956306,0.165560581,0.17080899,0.175601375,0.179973086,0.183746191,0.186825242,0.189277407,0.191017843,0.191926357,0.192133748,0.191521002,0.190915325,0.189244413,0.186763968,0.183650744,0.179843467,0.175487075,0.17061574,0.165228283,0.159483785,0.153383421,0.147010857,0.1420264,0.137039586,0.130246348,0.123371803,0.116433627,0.109507234,0.102626797,0.095759323,0.08900497,0.082285969,0.075746078,0.070971368,0.06624615,0.0603084,0.054741833,0.049214153,0.043880901,0.038585357,0.033706952,0.02938591,0.025426625,0.021906867,0.019486518,0.017261777,0.01463168,0.012339773,0.010416691,0.008676255,0.007282257,0.006015521,0.005043375,0.004246805,0.003520936,0.003041344,0.002803315,0.002294264,0.00191012,0.001661486,0.001435241,0.001295016,0.001066415,0.000965076,0.000780073,0.00068227,0.000670486,0.000526726,0.000458382,0.000478414,0.000411247,0.000302838,0.000372361,0.00022978,0.000234493,0.000281628,9.54E-05,0.000253347,0.00010016,0.000233315,0.000195608,0.000101339,0.000202678,0.000282806,0.000162614,0.000109587,0.000258061,0.000107231,0.000160257,0.000128441,0.000205034,7.78E-05,0.000162614,0.000124906,2.12E-05,0.000155543,0.000106052,0.00015083,5.42E-05,0.000116658,0.000144938,3.89E-05,0.000148473,0,5.77E-05,6.95E-05,2.47E-05\nSRI-0000564.txt,COC(=O)NC1=NC2=CC(Cl)=CN=C2N1,1,0.940980241,0.874262253,0.802412112,0.733128047,0.663843983,0.61508853,0.556068771,0.497049012,0.44059533,0.402104183,0.366179112,0.335386195,0.3020272,0.281498589,0.271234283,0.253271747,0.243007442,0.245573518,0.232743136,0.217346677,0.217346677,0.2147806,0.212214524,0.21375417,0.211701309,0.204259687,0.202206826,0.199640749,0.202463433,0.192455735,0.180908391,0.17551963,0.161662818,0.15268155,0.140877598,0.139081345,0.134975622,0.127790608,0.128817039,0.118296125,0.11342058,0.108545035,0.100590198,0.090325892,0.081344624,0.0872466,0.080831409,0.071850141,0.070310495,0.079548371,0.078008725,0.080318193,0.091865538,0.095201437,0.103156274,0.105978958,0.125994355,0.128047216,0.144213498,0.149345651,0.176032846,0.192712343,0.207082371,0.230946882,0.252501925,0.27918912,0.297151655,0.329740826,0.35334873,0.386964332,0.402617398,0.448550167,0.470618424,0.497818835,0.530664614,0.569412368,0.599435463,0.626122658,0.655119323,0.666666667,0.690017963,0.716961765,0.721067488,0.730561971,0.743905568,0.758018989,0.754426482,0.753913267,0.740056454,0.721837311,0.698229407,0.679240441,0.647421093,0.614575314,0.581472928,0.547087503,0.512702079,0.474980754,0.42314601,0.387220939,0.365152682,0.323069027,0.290223249,0.257890685,0.240441365,0.215550423,0.216576854,0.197587888,0.177059276,0.179368745,0.163202463,0.151911727,0.145496536,0.143187067,0.150628689,0.134462407,0.120348986,0.119579163,0.127790608,0.130613292,0.108801642,0.102386451,0.092891968,0.086733385,0.079291763,0.086220169,0.089556069,0.083397485,0.072363356,0.075955863,0.062612266,0.059789582,0.055683859,0.042596869,0.045162946,0.047472415,0.047729022,0.032589171,0.026943803,0.029766487,0.034128817,0.028483449,0.025147549,0.028996664,0.028226841,0.02617398,0.026430588,0.026430588,0.025404157,0.023094688,0.021041827,0.018732358,0.016936105,0.015396459,0.014113421,0.01308699,0.012060559,0.010777521,0.010007698,0.009237875,0.00872466,0.008981268,0.010007698,0.010777521,0.011803952,0.010007698,0.010007698,0.011803952,0.019502181,0.015653066,0.016422889,0.01308699,0.009751091,0.013856813,0,0.003592507,0.010007698,0.011034129,0.014113421,0.002822684\nSRI-1036555-002.txt,CC(C)(C)C1=CC=C(C=C1)S(=O)(=O)NC(CC1=CC=CC=C1)C(O)=O,0.868458274,0.871287129,0.882602546,0.896746818,0.913719943,0.933521924,0.953323904,0.971711457,0.985855728,0.995756719,1,0.998585573,0.987411598,0.968316832,0.942149929,0.906647808,0.864780764,0.814851485,0.760254597,0.700707214,0.638755304,0.574398868,0.509759547,0.445968883,0.385007072,0.328712871,0.278359264,0.233663366,0.195190948,0.163790665,0.138472419,0.118387553,0.103691655,0.092659123,0.084427157,0.07903819,0.075162659,0.07321075,0.071442716,0.069349364,0.06698727,0.065700141,0.065219236,0.065544554,0.065049505,0.063366337,0.060452617,0.057369165,0.054455446,0.051089109,0.047878359,0.044101839,0.040862801,0.037609618,0.035318246,0.033125884,0.029872702,0.026463932,0.022673267,0.018528996,0.014413013,0.011951909,0.009405941,0.007171146,0.006096181,0.005219236,0.004356436,0.004144272,0.00387553,0.003677511,0.003677511,0.003196605,0.003422914,0.002263083,0.002263083,0.003762376,0.003069307,0.002489392,0.002772277,0.002630835,0.00311174,0.003026874,0.002687412,0.002475248,0.002362093,0.001895332,0.002659123,0.002362093,0.002362093,0.001994342,0.001725601,0.002531825,0.002305516,0.001966054,0.001315417,0.001796322,0.002164074,0.001683168,0.002248939,0.001626591,0.001626591,0.001867044,0.001739745,0.001951909,0.002135785,0.001485149,0.002164074,0.002050919,0.001810467,0.002362093,0.002248939,0.001216407,0.00175389,0.002248939,0.002050919,0.001188119,0.00251768,0.0018529,0.001951909,0.001173975,0.000947666,0.001810467,0.001089109,0.00135785,0.001881188,0.001640736,0.001485149,0.001386139,0.00115983,0.001612447,0.001824611,0.001117397,0.000594059,0.001046676,0.001867044,0.00145686,0.001188119,0.001244696,0.001131542,0.000749646,0.001046676,0.001074965,0.000650636,0.000707214,0.000693069,0.000480905,0.000594059,0.000565771,0.000480905,0.000311174,0.000183876,5.66E-05,0,0,0,0,2.83E-05,7.07E-05,0.000127298,0.00019802,0.000240453,0.000268741,0.000311174,0.000339463,0.000353607,0.000424328,0.000480905,0.000678925,0.000438472,0.000876945,0.000480905,0.00039604,0.000127298,0.000735502,0.00019802,0.000834512,0.000636492,0,8.49E-05,0.000438472,9.9E-05\nSRI-1052883-001.txt,CC(Oc1ccc2c(C)cc(=O)oc2c1)C(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(O)=O,1,0.976901054,0.943439704,0.899811466,0.847915648,0.788450527,0.722226102,0.651532714,0.579107604,0.507604218,0.440402207,0.380657775,0.328594372,0.284910272,0.24974513,0.221255499,0.198910691,0.181090706,0.16653865,0.15438866,0.143998324,0.134725229,0.126401788,0.119111794,0.113218351,0.108553872,0.105313875,0.103610083,0.102800084,0.102383912,0.102294533,0.102138119,0.101998464,0.102087843,0.102948118,0.104783186,0.107517631,0.111500594,0.116542141,0.122402067,0.128756372,0.135702814,0.143149221,0.15086656,0.159069897,0.167320718,0.1758704,0.184582082,0.193215558,0.201910481,0.210381957,0.218758467,0.22693946,0.23470428,0.24200824,0.248572027,0.254540884,0.260155017,0.265646254,0.271193352,0.276662244,0.281351861,0.285426995,0.288284338,0.289870819,0.289887578,0.28837651,0.286871029,0.28669227,0.288055303,0.289602681,0.289164165,0.284851617,0.277134278,0.267512045,0.258258502,0.250870749,0.245709099,0.24296348,0.242586412,0.243874031,0.246714615,0.250982473,0.256213952,0.262392291,0.268847148,0.275455625,0.282022205,0.288329027,0.294133091,0.299638293,0.304523427,0.308883458,0.313310523,0.316849382,0.32012569,0.322893653,0.324795754,0.326055443,0.325653237,0.324415893,0.321578102,0.317078416,0.311190559,0.304118427,0.295901124,0.28701627,0.277776692,0.26810139,0.258373019,0.248904406,0.23924307,0.229676699,0.219884086,0.209524475,0.198656518,0.187185252,0.174716849,0.161449619,0.147612597,0.133325885,0.118684449,0.104498289,0.090669646,0.077597933,0.065788702,0.05487047,0.045290133,0.037187347,0.030428043,0.024816703,0.019981845,0.016043572,0.012976747,0.010281405,0.008245234,0.006661546,0.005653237,0.004544375,0.003600307,0.002918791,0.002432791,0.001988688,0.001681447,0.001382585,0.001167516,0.001069758,0.001041827,0.000977585,0.000826758,0.00067593,0.000541862,0.000435724,0.000371482,0.000326793,0.000296069,0.000273724,0.000254172,0.000231827,0.000212276,0.000192724,0.000175965,0.000156414,0.000145241,0.000122896,8.66E-05,6.14E-05,8.94E-05,0.000131276,0.000178758,8.94E-05,0.000189931,5.03E-05,8.38E-05,0.000192724,9.78E-05,0.000122896,9.22E-05,0.000131276,9.78E-05,0\nSRI-1053255-001.txt,COC(=O)[C@H](C)NC(=O)CCCn1nnc2ccccc2c1=O,0.99213544,0.996955654,0.99983087,1,0.998139566,0.992558265,0.980042621,0.962622197,0.940127863,0.913489835,0.88507594,0.854717045,0.822159456,0.785796435,0.741991679,0.689561276,0.631295877,0.570239827,0.510198559,0.454216419,0.406521666,0.366691472,0.333964753,0.307411291,0.286363021,0.269280858,0.255513649,0.243412374,0.232588032,0.222871495,0.214085174,0.206533505,0.200055813,0.194356121,0.189831884,0.185992626,0.181722085,0.177747522,0.17430572,0.171388222,0.169003484,0.167878767,0.168039441,0.170119744,0.173789872,0.178677739,0.18501167,0.191827622,0.199920509,0.208131786,0.216605216,0.225036363,0.233941075,0.242422961,0.250854108,0.258862429,0.266278794,0.273830464,0.28080709,0.286532152,0.291800562,0.296020363,0.299056253,0.300781382,0.301347969,0.300409295,0.299090079,0.29641782,0.293009843,0.289314346,0.284967696,0.280384264,0.274312485,0.267784054,0.26031695,0.253458715,0.246685045,0.240706288,0.235547813,0.231006664,0.226651558,0.222118865,0.218685519,0.213713087,0.20700707,0.199328553,0.190965058,0.18202652,0.173730677,0.166153638,0.159557555,0.155337753,0.152242668,0.15063593,0.149435105,0.147118019,0.142247066,0.135109766,0.124488381,0.111642932,0.097867267,0.083981666,0.070189088,0.057724182,0.047178906,0.038587085,0.031128438,0.025428745,0.02029564,0.016295707,0.013758752,0.011450123,0.009522038,0.0077208,0.006646822,0.005539018,0.00468491,0.004050671,0.00354328,0.002942868,0.002359368,0.002156412,0.001877347,0.001902716,0.00206339,0.001928086,0.001378412,0.001750499,0.00206339,0.00153063,0.001412238,0.000913304,0.001420695,0.001107804,0.001073978,0.000989412,0.001090891,0.000591956,0.000794913,0.000904847,0.000515848,0.000761086,0.000236782,0.000515848,0.000676521,0.000718804,0.00075263,0.000676521,0.000532761,0.000329804,0.000219869,0.000143761,7.61E-05,1.69E-05,0,3.38E-05,0.000109935,0.000186043,0.000245239,0.000287522,0.000338261,0.000389,0.000439739,0.000431282,0.000389,0.000346717,0.000473565,0.000701891,0.000422826,0.000338261,0.000380543,0.000312891,0.000329804,0.000228326,0.000507391,0.000355174,0.0005835,0.000253695,0.000177587,0.000118391,0.000405913\nSRI-1053245-001.txt,Cc1ccccc1Oc1ccc(cc1)S(=O)(=O)NCC(O)=O,0.479945136,0.477509582,0.480329697,0.48693133,0.497378575,0.513081489,0.531732704,0.554934561,0.580636064,0.609798618,0.641845381,0.676712259,0.713117381,0.750612093,0.789260489,0.826883388,0.863608978,0.89764264,0.928984374,0.956288216,0.977695453,0.99218059,1,0.999166784,0.989937317,0.970709259,0.943149043,0.90655164,0.86181436,0.808507775,0.748625194,0.685153376,0.618444835,0.55286434,0.489995001,0.43239415,0.380728359,0.336151312,0.298252811,0.266148364,0.239639282,0.217693659,0.19936291,0.18442271,0.171853969,0.160131264,0.149062312,0.139185499,0.130494417,0.123905603,0.117823128,0.112202125,0.105696633,0.098120778,0.089923216,0.081289818,0.07246414,0.06493956,0.059273692,0.05583187,0.053415544,0.050755663,0.046384484,0.040122547,0.033309405,0.026438579,0.020849624,0.016061837,0.012921255,0.010575432,0.008902591,0.007813001,0.00703106,0.006165797,0.005665868,0.005435131,0.005121073,0.004672418,0.004242991,0.004236582,0.003954571,0.003736653,0.003826383,0.003191858,0.003191858,0.003275179,0.003134173,0.002800887,0.002647063,0.002531694,0.002390688,0.002185589,0.002025355,0.002262501,0.002384279,0.002198408,0.00227532,0.002127905,0.001871531,0.001551063,0.001224186,0.001230596,0.000922947,0.000916537,0.000538386,0.00058966,0.000621707,0.000640935,0.000499929,0.000435836,0.000846035,0.000634526,0.00078835,0.001019087,0.000698619,0.000423017,0.000538386,0.000288421,0.000781941,0.000666573,0.00049352,0.000474292,0.00059607,0.000538386,0.000769122,0.000781941,0.000705029,0.001012678,0.000858853,0.000813988,0.000487111,0.000653754,0.000749894,0.000756304,0.000628117,0.000506339,0.000660163,0.00029483,0.00069221,0.000608888,0.000570432,0.00058966,0.000217918,0.000435836,0.000499929,0.000474292,0.000442245,0.000371742,0.000256374,0.000108959,8.97E-05,8.33E-05,7.05E-05,5.77E-05,5.77E-05,9.61E-05,0.000147415,0.00019869,0.000224327,0.000256374,0.000282012,0.00030124,0.000307649,0.000269193,0.00019869,0.000217918,0.000429427,0.00039738,0.000531976,0.000243555,0.000410199,0.000179462,0.000230737,0.000429427,0.000256374,0,0.000538386,0.000230737,0.000173053,0.000173053,0.000378152\nSRI-1052877-001.txt,CSCC[C@@H](NC(=O)c1sc(nc1C)-c1ccc(OC(F)(F)F)cc1)C(O)=O,0.773639402,0.75494773,0.737591178,0.719344545,0.700207834,0.681071122,0.660599291,0.63968242,0.617430429,0.594288359,0.56847605,0.541773662,0.513736154,0.485253606,0.457527626,0.431136765,0.405814,0.382360402,0.360241924,0.339503069,0.319832309,0.302119725,0.285163708,0.269097771,0.253521377,0.238167504,0.223837222,0.210308012,0.198336441,0.188723581,0.18178096,0.177330562,0.175545953,0.176391528,0.179671472,0.185043102,0.192448565,0.201629736,0.212889243,0.225644084,0.239760747,0.255470652,0.272546829,0.291122791,0.310838054,0.331821681,0.354033618,0.377180139,0.401238991,0.426450496,0.452000231,0.478720422,0.505912354,0.533847503,0.561528979,0.589998175,0.618129142,0.646865362,0.674782709,0.702094802,0.729624965,0.756144887,0.782388885,0.808032078,0.832104282,0.855735896,0.877938932,0.898958162,0.918660074,0.936439415,0.952233877,0.966087967,0.97797943,0.987120548,0.993640381,0.997899412,1,0.999207829,0.997231852,0.992825958,0.985638565,0.975384848,0.962109311,0.94555383,0.925473634,0.902282609,0.875544617,0.84561124,0.81341706,0.779416019,0.744680662,0.708975118,0.673625606,0.638885798,0.604061433,0.569245969,0.534087824,0.497888286,0.461083494,0.423059293,0.384403135,0.345248532,0.30530621,0.266107103,0.228149658,0.191691997,0.158723448,0.128985888,0.102817547,0.08060116,0.063102194,0.048829768,0.037414497,0.028602709,0.02214073,0.016826955,0.013115323,0.010418382,0.008437955,0.006413024,0.005376081,0.004316886,0.003484662,0.00290611,0.002438818,0.002198497,0.00201158,0.001700052,0.001468631,0.001352921,0.001179355,0.001161554,0.001076996,0.00100134,0.000774369,0.000623056,0.00067201,0.000525147,0.00044504,0.000431689,0.000418337,0.000298177,0.00021807,0.000311528,0.000320429,0.00033378,0.000351581,0.000391635,0.000431689,0.000418337,0.000391635,0.000364933,0.000307077,0.000258123,0.000209169,0.000178016,0.000142413,0.00011126,7.57E-05,6.23E-05,4.9E-05,3.56E-05,2.67E-05,4.01E-05,3.12E-05,4.45E-06,8.46E-05,0.000315978,0.00010681,0.000164665,1.78E-05,9.79E-05,4.45E-06,9.35E-05,0.000151314,4.45E-05,7.57E-05,4.01E-05,5.79E-05,3.56E-05,0\nSRI-1052867-001.txt,COc1ccc(cc1)-c1nc(CC(=O)N[C@@H](Cc2c[nH]c3ccccc23)C(O)=O)cs1,1,0.99387644,0.979620534,0.955968689,0.922013712,0.876978007,0.821995568,0.757908788,0.688216845,0.616580915,0.545528181,0.479691813,0.419752206,0.366810954,0.321321652,0.283187102,0.25159731,0.225709879,0.204617618,0.186992133,0.172865826,0.161234302,0.151417167,0.14328482,0.136642864,0.130908101,0.126210132,0.122289758,0.119276578,0.116943793,0.115268724,0.114056972,0.113869053,0.11440365,0.11588756,0.118158785,0.121440883,0.125571856,0.130240666,0.135748629,0.142157307,0.149223701,0.157145449,0.165686033,0.174932932,0.184558909,0.194881482,0.205634971,0.216313941,0.227307189,0.238187037,0.248700769,0.258906702,0.268765957,0.277889737,0.286472441,0.294763546,0.30334625,0.311702155,0.320453338,0.328864323,0.336368113,0.342355594,0.345320175,0.345278055,0.342630992,0.33834126,0.334926323,0.333040655,0.334547245,0.336737471,0.338185742,0.335920996,0.32933412,0.318943508,0.305322637,0.289874418,0.273807364,0.259664857,0.248328171,0.240665621,0.236398569,0.234934099,0.236016252,0.238355516,0.241725094,0.246095826,0.251360791,0.257202473,0.263079794,0.269319993,0.275459753,0.281016317,0.285882765,0.289923018,0.2927094,0.293707313,0.292988038,0.290781612,0.2865988,0.281810111,0.276379907,0.270891383,0.26520522,0.259859255,0.254014334,0.247787095,0.241093298,0.233333549,0.22401213,0.212986483,0.199994168,0.184782468,0.1676527,0.149006623,0.130399425,0.111477949,0.093674265,0.077859929,0.063610503,0.0518591,0.041922085,0.033912858,0.027536579,0.022294294,0.018121201,0.014887702,0.012354039,0.01062389,0.009285779,0.008067547,0.007127953,0.006473478,0.005802802,0.005436684,0.005025207,0.004707689,0.004403131,0.004098573,0.003742175,0.003612576,0.003369578,0.00311686,0.002951621,0.002579023,0.002397584,0.002284185,0.002216145,0.002109226,0.001908347,0.001684789,0.00147419,0.001302471,0.001192312,0.001111313,0.001040033,0.000978474,0.000913674,0.000845634,0.000767875,0.000683636,0.000583196,0.000469797,0.000366118,0.000259198,0.000191159,0.000187919,0.000307798,0.000317518,0.000217079,0.000223559,0.000136079,2.92E-05,5.83E-05,0.000116639,0.000265678,0.000100439,9.4E-05,0.000129599,0.000103679,0\nSRI-0000571.txt,[O-][N+](=O)C1=CC=C(O1)\\C=C\\C1=NC=CC=N1,0.010134793,0.004488265,0.001303045,0,0.000868697,0.003764352,0.00738392,0.011437838,0.01838741,0.025192199,0.03576134,0.045606567,0.056754839,0.069640504,0.083539649,0.099176186,0.115536637,0.133344916,0.15144276,0.170264518,0.18821758,0.207763251,0.227598488,0.247723291,0.267992877,0.288262462,0.308242482,0.328367285,0.347623391,0.36618454,0.383992819,0.39984653,0.414324806,0.42738421,0.438199482,0.447711709,0.455993282,0.462320288,0.46734425,0.470891427,0.473236908,0.472730168,0.471760124,0.469009252,0.465824031,0.463362724,0.458599372,0.454357237,0.449738667,0.443802574,0.437736177,0.429498038,0.420217464,0.410893454,0.399918922,0.389813085,0.380054728,0.370354283,0.36215958,0.35367531,0.345885998,0.338559991,0.330350809,0.321504582,0.312513573,0.303131651,0.293228511,0.28517859,0.276375798,0.268687834,0.261072261,0.254643907,0.249533076,0.24353907,0.237878064,0.232940972,0.228105228,0.223443223,0.217666392,0.213264996,0.207908034,0.202464202,0.197005893,0.191214583,0.18594449,0.18048618,0.175447741,0.171017388,0.166673906,0.16302538,0.159116246,0.155815199,0.153701371,0.151051847,0.149821193,0.147808713,0.147273017,0.14733093,0.1480838,0.148735323,0.151051847,0.154121241,0.158276506,0.163850642,0.169888083,0.177257525,0.185481185,0.194486673,0.20525851,0.216594999,0.228872577,0.242742764,0.256743257,0.271583489,0.288045288,0.305042783,0.323357802,0.342498082,0.361030274,0.380402206,0.402800098,0.424372729,0.44526488,0.46827086,0.492160014,0.515455559,0.539779062,0.563957781,0.587948284,0.610766046,0.633496938,0.656676657,0.678683635,0.70122631,0.724753507,0.747383052,0.76905703,0.791020574,0.811130898,0.831038527,0.851351547,0.869927174,0.887547235,0.904790861,0.920745921,0.934804326,0.944359988,0.950107863,0.95559513,0.966280097,0.977935108,0.98833051,0.995091865,0.998349477,0.999667,0.999942087,1,0.999652521,0.998030955,0.995989518,0.991921122,0.988272597,0.982770852,0.973823278,0.961169266,0.94560512,0.929128842,0.91185626,0.892933154,0.873966613,0.852393983,0.829388003,0.804224761,0.778323126,0.752074013,0.723609724,0.694392564,0.663655185,0.631788501,0.599328208,0.565868914\nSRI-1053016-001.txt,CSc1ccc(cc1)-c1ccc(=O)n(CC(=O)N2CCCC(C2)C(O)=O)n1,0.979527242,0.993114661,1,0.99897898,0.988061921,0.965520943,0.931251325,0.886247909,0.831924413,0.771055918,0.707595603,0.645967888,0.586382212,0.530723537,0.480274681,0.435375984,0.396524867,0.36416639,0.337436612,0.316675873,0.301491474,0.291359815,0.284657736,0.281254336,0.280390396,0.281228156,0.283191656,0.286019096,0.289239235,0.292598129,0.296140283,0.299334243,0.301622374,0.303554458,0.304410544,0.304263936,0.303140814,0.301038561,0.298420561,0.294417639,0.289943477,0.283856628,0.276856096,0.267892065,0.257812766,0.246754335,0.234661794,0.223061437,0.212167939,0.202067696,0.193444005,0.186388495,0.180749324,0.1765134,0.17358124,0.171392593,0.169842737,0.168942145,0.168774593,0.169279867,0.170531271,0.172086363,0.173573386,0.174473978,0.17451063,0.17314927,0.170366337,0.166530967,0.162852677,0.160158756,0.15809839,0.15531022,0.150542842,0.143167937,0.133758846,0.1230329,0.111495375,0.099196012,0.086493477,0.073900898,0.061564883,0.050619026,0.041233497,0.033363789,0.027098916,0.022200638,0.018299819,0.015249849,0.012817727,0.010985127,0.009427417,0.008236227,0.007152375,0.006346032,0.005678442,0.005188876,0.004654804,0.004309228,0.004133822,0.003837988,0.00361284,0.003382456,0.003358894,0.003317006,0.003243702,0.003086622,0.00308924,0.003065678,0.002926924,0.002911216,0.00291907,0.002987138,0.002864092,0.002911216,0.002628472,0.002612764,0.002649416,0.002439976,0.002510662,0.002374526,0.002288132,0.002241008,0.002165086,0.002183412,0.00212058,0.002047276,0.001782858,0.0017017,0.001874488,0.001827364,0.001746206,0.00164934,0.001403248,0.001484406,0.001403248,0.001309,0.001238314,0.001254022,0.001225224,0.001102178,0.000932008,0.000892738,0.000979132,0.000819434,0.00074613,0.000725186,0.000704242,0.000670208,0.000609994,0.000520982,0.000434588,0.000356048,0.00030107,0.000269654,0.000253946,0.000243474,0.000233002,0.00022253,0.000206822,0.000191114,0.00017017,0.000146608,0.000120428,0.000109956,0.000112574,0.000102102,9.42E-05,0.000125664,0,8.12E-05,0.000123046,6.28E-05,9.69E-05,0.000128282,8.38E-05,8.38E-05,8.38E-05,4.97E-05,2.09E-05,8.64E-05,7.85E-05\nSRI-1053006-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)Cn1cnc2ccccc2c1=O,0.98187083,0.991942591,1,0.999748206,0.987410298,0.965504218,0.929245877,0.882915775,0.830290822,0.770615636,0.714465567,0.65907088,0.604935163,0.549540476,0.497419111,0.444542364,0.395442528,0.350371396,0.309328969,0.274833186,0.245121491,0.218934911,0.19702883,0.177388896,0.161022284,0.14893617,0.138109027,0.130555206,0.12531789,0.121415082,0.120307189,0.120055395,0.121465441,0.123379076,0.127609216,0.131889714,0.136396827,0.139871585,0.144328339,0.147928994,0.153115951,0.159989928,0.166813547,0.173863779,0.181316883,0.18733476,0.194435352,0.197205086,0.198489236,0.199496412,0.199949641,0.200302153,0.201712199,0.202845273,0.203575475,0.204935163,0.20420496,0.201963993,0.197708674,0.19113685,0.18355785,0.174468085,0.166461035,0.158856855,0.150925343,0.142893113,0.137353645,0.131386126,0.126853834,0.126199169,0.125871837,0.124285534,0.119879139,0.112627471,0.104091653,0.095530656,0.087649503,0.081153217,0.077376306,0.073951907,0.072969911,0.070779303,0.069469974,0.067757774,0.064836963,0.061412565,0.057862269,0.054463049,0.051089009,0.049301272,0.047110663,0.046481178,0.046682614,0.046732972,0.04768979,0.047312099,0.044063956,0.040438122,0.03588065,0.030769231,0.023517563,0.018758655,0.01475513,0.011129296,0.008107768,0.005640186,0.004431575,0.004129422,0.003046708,0.002568299,0.002266146,0.002341685,0.002291326,0.001963993,0.002442402,0.001586302,0.001888455,0.001233791,0.002064711,0.002014352,0.002643837,0.001057535,0.001938814,0.001863276,0.001636661,0.001435226,0.001309329,0.00168702,0.001737379,0.001410047,0.001661841,0.001309329,0.00125897,0.001032356,0.000629485,0.000981997,0.000528767,0.00211507,0.001611482,0.002165429,0.000755382,0.000805741,0.001007176,0.001888455,0.001183432,0.000780562,0.001032356,0.001107894,0.001183432,0.001359688,0.001460405,0.001410047,0.001309329,0.001133073,0.000931638,0.000730203,0.000528767,0.00042805,0.00042805,0.000453229,0.000528767,0.000579126,0.000679844,0.000780562,0.000981997,0.001208611,0.001460405,0.002039532,0.000679844,0.000629485,0.000302153,0.001586302,0.002417223,0.000956817,0.00042805,0.001007176,0.000679844,0.000528767,0.0008561,0,0.000730203\nSRI-1053208-001.txt,CC[C@@H](C)[C@H](NC(=O)Cc1ccc2OC(C)(C)CCc2c1)C(O)=O,1,0.989243148,0.980637666,0.972032185,0.965578073,0.963426703,0.963426703,0.965578073,0.972032185,0.98106794,0.987306915,0.9883826,0.98472527,0.972462459,0.95202444,0.922765802,0.882750312,0.830041737,0.768942817,0.699238415,0.626952369,0.555311734,0.484531647,0.417193752,0.354158599,0.297577557,0.248956585,0.20571404,0.169571017,0.139451831,0.114280797,0.095284196,0.081042124,0.070866142,0.063271804,0.059334796,0.056839207,0.056688611,0.058345166,0.059549933,0.063680565,0.068779312,0.073404759,0.079278,0.086678714,0.093606127,0.101265006,0.110623467,0.120648853,0.130738781,0.141560174,0.153306656,0.164687406,0.177337464,0.188976378,0.201153135,0.214319522,0.227034121,0.239146336,0.252764511,0.264274343,0.273740373,0.279140312,0.281399251,0.27976421,0.278301278,0.273890969,0.27047029,0.26681296,0.262617788,0.254786799,0.240265049,0.216879652,0.185189966,0.148638183,0.116496708,0.086377522,0.062497311,0.045307861,0.033604406,0.025063465,0.019534443,0.015941655,0.01312336,0.010907448,0.010132955,0.009164838,0.007680392,0.006798331,0.006647735,0.005335399,0.004733015,0.004689988,0.004044576,0.003958522,0.003334624,0.003528247,0.002839809,0.002581645,0.00249559,0.002108343,0.0015705,0.001075685,0.000946603,0.001312336,0.000129082,0.000494815,0.000150596,0,0.001613528,0.001011144,0.000322706,0.000817521,0.001097199,0.001527473,0.001419904,0.000968117,0.000968117,0.000602384,0.001226281,0.001678069,0.001118713,0.000731466,0.001656555,0.001376877,0.001936233,0.000451788,0.000968117,0.001527473,0.001054172,0.001032658,0.000882062,0.000688439,0.001462932,0.001484446,0.002022288,0.002538617,0.000258164,0.00116174,0.001226281,0.001419904,0.000473301,0.000839034,0.001441418,0.001484446,0.001592014,0.001635042,0.001484446,0.001226281,0.000925089,0.00075298,0.000559356,0.000365733,0.000215137,0.00017211,0.00017211,0.000193623,0.000279678,0.000322706,0.000387247,0.000494815,0.000559356,0.000623897,0.000731466,0.000774493,0.000946603,0.001592014,0.001871692,0.00098963,0.000731466,0.001419904,0.001505959,0.00058087,0.001355363,0.00116174,0.001247795,0.000602384,0.00098963,0.001355363,0.002344994,0.00116174\nSRI-1053218-001.txt,CSCCC(NS(=O)(=O)c1ccc(cc1)C(C)C)C(O)=O,0.76723691,0.806765163,0.844997408,0.881933644,0.916277864,0.946086055,0.970710213,0.988206325,0.998574391,1,0.993455158,0.976931052,0.952501296,0.92029549,0.879795231,0.833398134,0.780520995,0.723302229,0.66251944,0.597978227,0.533566615,0.470062208,0.407529808,0.348755832,0.295036288,0.246954381,0.206130119,0.171202696,0.142560912,0.119427164,0.101153447,0.087266719,0.07649689,0.06881804,0.063271125,0.059778383,0.05785381,0.05629212,0.054276827,0.052157854,0.050868326,0.050835925,0.051782011,0.052928979,0.053440902,0.052138414,0.05007128,0.048224469,0.046597978,0.044919647,0.043306117,0.041044583,0.038374806,0.036618714,0.034985744,0.033547175,0.031039399,0.026801452,0.022485744,0.019122602,0.016115863,0.013731208,0.011288232,0.009577501,0.008132452,0.007614049,0.006881804,0.00618196,0.006026439,0.005572836,0.005209953,0.005333074,0.005054432,0.00461379,0.003933385,0.003492742,0.00306506,0.002592017,0.002339295,0.002540176,0.002313375,0.002280975,0.002157854,0.002080093,0.001749611,0.001762571,0.001665371,0.001464489,0.001386729,0.00153577,0.001211768,0.001069207,0.000952566,0.000693364,0.000777605,0.000835925,0.000939606,0.000855365,0.000816485,0.000427683,0.000272162,0.000194401,0.000265682,0.000200881,0.000330482,7.13E-05,6.48E-05,0,3.24E-05,0,0.000272162,0.000136081,0.000298082,3.89E-05,0.000440643,7.13E-05,2.59E-05,0.000414723,0.000142561,0.000155521,4.54E-05,4.54E-05,0.000174961,0.000129601,0.000110161,0.000187921,0.000116641,0.000155521,0.000200881,0,0.000123121,0.000162001,0.000427683,0.000103681,0.000336962,0.000421203,0.000557284,0.000272162,0.000213841,0.000136081,0.000226801,0.000246242,0.000336962,0.000129601,0.000304562,0.000330482,0.000278642,0.000162001,5.83E-05,0,0,0,0,6.48E-06,2.59E-05,4.54E-05,6.48E-05,0.000103681,0.000123121,0.000142561,0.000168481,0.000187921,0.000200881,0.000213841,0.000246242,0.000336962,0.000576724,0.000453603,0.000207361,1.3E-05,0.000265682,0.000492483,0.000174961,0,0,0.000401763,0.000226801,6.48E-06,0.000304562,0.000233281,0.000200881\nSRI-1032317-002.txt,FC(F)(F)C1=CC=CC=C1NC(=S)NC(=O)CCN1C(=O)C2=CC=CC=C2C1=O,0.995493872,1,0.996338771,0.986059165,0.966767304,0.932830525,0.895514149,0.85918349,0.822993646,0.791873198,0.767652758,0.749346611,0.733110468,0.714269219,0.693203069,0.671235693,0.652408526,0.636622995,0.625343592,0.617852154,0.609910103,0.59316702,0.560173711,0.512605894,0.460785418,0.412738825,0.372718773,0.340401383,0.31520931,0.295142957,0.279061711,0.266120674,0.255417211,0.246495077,0.239465517,0.233561081,0.228926809,0.22551905,0.223309639,0.222005678,0.221660677,0.222028208,0.22346172,0.225655642,0.228591666,0.232321895,0.23655484,0.241443989,0.246555628,0.252085493,0.257825173,0.263707079,0.269677699,0.27550187,0.281079612,0.286479925,0.291312748,0.295751284,0.299322391,0.302613273,0.305024051,0.306833544,0.307803769,0.308160035,0.307905157,0.306967319,0.305352154,0.302823089,0.299778636,0.296099101,0.291745055,0.286805211,0.281400674,0.275390625,0.268893351,0.261876464,0.254331516,0.246295118,0.237981311,0.229442198,0.220662288,0.211655664,0.202618061,0.193443865,0.183961281,0.174328024,0.164415949,0.154333487,0.144096127,0.13402493,0.123980488,0.114158537,0.104749178,0.095725656,0.087104869,0.079140287,0.071651665,0.064708003,0.058326199,0.052428803,0.047067919,0.042278749,0.037817682,0.033864963,0.030364264,0.027260668,0.024502073,0.022099743,0.02000721,0.018041411,0.016433287,0.014936407,0.013828181,0.012729813,0.011849709,0.011018892,0.010269748,0.009703666,0.009296706,0.008872848,0.008389848,0.008043439,0.007806867,0.007502704,0.007264724,0.007022519,0.006800029,0.006659213,0.006357865,0.006128335,0.005952314,0.005797416,0.005542538,0.005328497,0.005270762,0.005003211,0.004852537,0.004601884,0.004393475,0.004220271,0.003955536,0.003833025,0.003602086,0.003455637,0.003283841,0.003131759,0.003017698,0.002940249,0.002826187,0.002602289,0.002354452,0.002131962,0.001955941,0.001829206,0.001747533,0.001679941,0.001610941,0.001537716,0.001454635,0.001363104,0.001260308,0.001142022,0.001004022,0.000846307,0.000681552,0.000540735,0.000463286,0.000383021,0.00037598,0.000305572,0.000326694,0.000226715,0.000218266,0.000116878,0.00012251,9.58E-05,0.000101388,5.07E-05,3.38E-05,0,1.27E-05\nSRI-1053312-001.txt,Cn1c2ccc(cc2oc1=O)S(=O)(=O)NCCC(O)=O,0.207241911,0.172405708,0.15147049,0.140751658,0.138741877,0.143263884,0.152391639,0.165790179,0.183543244,0.203557312,0.226669793,0.253885576,0.284450995,0.317779862,0.35403966,0.393732833,0.434933342,0.479148523,0.525122262,0.573273263,0.622345414,0.671417565,0.720071012,0.768615596,0.814882428,0.857406043,0.897216453,0.93124037,0.959435921,0.980739599,0.994808066,1,0.996122798,0.98352817,0.960968379,0.929934012,0.890073357,0.843186843,0.789743418,0.73289174,0.675336638,0.61963221,0.568382796,0.522718899,0.484281838,0.453674549,0.430637436,0.414693173,0.404409794,0.399142493,0.398321833,0.400951296,0.407541703,0.417029544,0.428828633,0.442277417,0.45701581,0.470305487,0.48133416,0.488452134,0.490487037,0.487196021,0.479642594,0.470682321,0.462559456,0.454788303,0.443809875,0.422548067,0.386807463,0.336663429,0.277458632,0.216939104,0.161946473,0.11674315,0.082283781,0.057722583,0.040430093,0.028270918,0.020256917,0.014838883,0.01114591,0.008491324,0.006548536,0.005526898,0.004329403,0.003885576,0.003274268,0.002822067,0.002487104,0.00192604,0.002168889,0.001817177,0.001390098,0.001314732,0.001230991,0.001364976,0.001038387,0.000979768,0.001222617,0.001222617,0.001097005,0.000954646,0.000904401,0.001272861,0.000904401,0.001063509,0.00092115,0.001021639,0.001021639,0.000896027,0.000703423,0.000703423,0.000561064,0.000753668,0.001055135,0.000879279,0.000569438,0.001122128,0.001364976,0.00077879,0.000628057,0.000661553,0.001080257,0.001306358,0.000854157,0.000401956,0.000770416,0.000745294,0.000653179,0.000602934,0.000912776,0.000820661,0.00077879,0.000887653,0.000494071,0.000653179,0.000745294,0.000686675,0.000644805,0.000393582,0.000343338,0.000669927,0.000653179,0.000586186,0.000418704,0.000527567,0.000477323,0.000435453,0.000401956,0.000267971,0.000133985,6.7E-05,8.37E-06,0,4.19E-05,7.54E-05,9.21E-05,0.000108863,0.000133985,0.000142359,0.000142359,0.000133985,0.000125611,0.000117237,0.000159108,0.000284719,0.000293093,0.000401956,0.000527567,0.000192604,0.000360086,0.000904401,0.000427078,0.000561064,0.000502445,0.000427078,0.000343338,0.000619682,0.000711797,0.000628057,0.000293093\nSRI-1052770-001.txt,CSCC[C@H](NC(=O)CCCCCn1nnc2ccccc2c1=O)c1nc2ccccc2n1C,1,0.908298945,0.908298945,0.908298945,0.862448418,0.862448418,0.862448418,0.770747364,0.724896836,0.724896836,0.679046309,0.633195782,0.541494727,0.541494727,0.449793673,0.358092618,0.358092618,0.312242091,0.266391564,0.229711142,0.179275562,0.147180193,0.133425034,0.115084823,0.096744613,0.09215956,0.078404402,0.087574507,0.078404402,0.073819349,0.073819349,0.069234296,0.055479138,0.060064191,0.060064191,0.073819349,0.069234296,0.054103622,0.064190738,0.082989454,0.077028886,0.089867033,0.07565337,0.101788171,0.10958276,0.112792297,0.114167813,0.125171939,0.147638698,0.132049519,0.141678129,0.160935351,0.164603393,0.16781293,0.182943604,0.194864741,0.199908299,0.195323246,0.198074278,0.200825309,0.198991288,0.19303072,0.209078404,0.207244383,0.203117836,0.201283815,0.192113709,0.157725814,0.124254929,0.130215497,0.118752866,0.097661623,0.055937643,0.059605685,0.057313159,0.053186612,0.027051811,0.03301238,0.038972948,0.039431453,0.015589179,0.0087116,0.023842274,0.023842274,0.03392939,0.035763411,0.038514443,0.021549748,0.013296653,0.024759285,0.03392939,0.031178359,0.038055938,0.03301238,0.031636864,0.014213663,0.018798716,0.017881706,0.031178359,0,0.022925264,0.038055938,0.019257221,0.022466758,0.015589179,0.025676295,0.037138927,0.027051811,0.025676295,0.025676295,0.019257221,0.031178359,0.012838148,0.027510316,0.039889959,0.035763411,0.035304906,0.031636864,0.032095369,0.014213663,0.018340211,0.028885832,0.038972948,0.049518569,0.029802843,0.019257221,0.032095369,0.044933517,0.022925264,0.031636864,0.022925264,0.022925264,0.027510316,0.016047685,0.020174232,0.026134801,0.04172398,0.02521779,0.044475011,0.01650619,0.031178359,0.032095369,0.024300779,0.024300779,0.027968822,0.028427327,0.028885832,0.029344337,0.028885832,0.025676295,0.021091243,0.016047685,0.012838148,0.010087116,0.009628611,0.010087116,0.010087116,0.011462632,0.012838148,0.015130674,0.016964695,0.019715727,0.024300779,0.027968822,0.026593306,0.022008253,0.025676295,0.009628611,0.024300779,0.022925264,0.05823017,0.036221917,0.042182485,0.053645117,0.06785878,0.060064191,0.056396149,0.044475011,0.044933517,0.038972948,0.069234296\nSRI-1053302-001.txt,CC(C)C(NS(=O)(=O)c1ccccc1[N+]([O-])=O)C(O)=O,1,0.975275343,0.930321421,0.905596763,0.883119802,0.844908968,0.802202742,0.772982693,0.743762643,0.703304113,0.658350191,0.620139357,0.581928523,0.543717689,0.501011463,0.456057541,0.408855923,0.368397393,0.327938863,0.294223421,0.258260283,0.226792538,0.20229265,0.187457856,0.178691841,0.162733198,0.153517644,0.145425938,0.146999326,0.140031468,0.134412227,0.1272196,0.124297595,0.124971904,0.118678355,0.11553158,0.117104967,0.110586649,0.112384806,0.102494943,0.099348168,0.105416948,0.110811418,0.100247247,0.099572938,0.103394021,0.100696786,0.104517869,0.111935266,0.116880198,0.114407732,0.118678355,0.129467296,0.13890762,0.143627782,0.136884693,0.149696561,0.142503933,0.142728703,0.158462576,0.158912115,0.154416723,0.160485502,0.163632277,0.161384581,0.165879973,0.157338728,0.160260733,0.171499213,0.149921331,0.160485502,0.154191953,0.150820409,0.15037087,0.146774556,0.148797483,0.148797483,0.141604855,0.148123174,0.134861767,0.139132389,0.126320521,0.13868285,0.126545291,0.126770061,0.120926051,0.117104967,0.111485727,0.104517869,0.10406833,0.100921555,0.097550011,0.097550011,0.093054619,0.090132614,0.090357384,0.095527085,0.091706001,0.071701506,0.061362104,0.056866712,0.055068555,0.05192178,0.042031917,0.030568667,0.026747584,0.021577883,0.031018206,0.021353113,0.014385255,0.016857721,0.020454035,0.024050348,0.008766015,0.013935716,0.006293549,0.014160486,0.008091706,0.01730726,0.009889863,0.01708249,0.021802652,0.013486177,0.012137559,0.013710946,0.009665093,0.010339402,0.01146325,0.001573387,0.015509103,0.013036637,0.016857721,0.019330187,0.017756799,0.01146325,0.00561924,0.016183412,0.018655878,0.011912789,0.007192628,0.006743088,0.01168802,0.010564172,0.016857721,0.010788941,0.010339402,0.009440324,0.010564172,0.012587098,0.013261407,0.013036637,0.013036637,0.012137559,0.011013711,0.009665093,0.008766015,0.007642167,0.007192628,0.007192628,0.007642167,0.007642167,0.007866936,0.008091706,0.008766015,0.009889863,0.008990784,0.008091706,0.015059564,0.012587098,0.00561924,0.001123848,0.012362329,0.008091706,0.010114633,0.015059564,0.011013711,0.002922005,0,0.011013711,0.004944931,0.012137559\nSRI-0000607.txt,CC12CC(O)[C@@]3(F)C(CCC4=CC(=O)C=CC34C)C1CCC21OC(C)(C)OCC1=O,1,0.921706792,0.882560188,0.784693678,0.70640047,0.628107262,0.549814054,0.451947544,0.41280094,0.334507731,0.314934429,0.275787825,0.256214523,0.22293991,0.217067919,0.203366608,0.189665297,0.179878646,0.175963985,0.174006655,0.181835976,0.179878646,0.174006655,0.172049325,0.166177334,0.162262674,0.164220004,0.160305344,0.152476023,0.150518693,0.142689372,0.138774711,0.134860051,0.135055784,0.128792327,0.125856332,0.122724604,0.117244079,0.121941672,0.113329419,0.110589156,0.108631826,0.109806224,0.102955569,0.105695831,0.107261695,0.103738501,0.095713447,0.084556665,0.08553533,0.077901742,0.069093756,0.072421217,0.068115091,0.064983363,0.059698571,0.055000979,0.046192993,0.038363672,0.030338618,0.036406342,0.02720689,0.020551967,0.018594637,0.025053827,0.020160501,0.020160501,0.022313564,0.016637307,0.011548248,0.01233118,0.011352515,0.026032492,0.019181836,0.011743981,0.011352515,0.004697592,0.01428851,0.01487571,0.015267176,0.011743981,0.015658642,0.013897044,0.012918379,0.012722646,0.011352515,0.016637307,0.013505578,0.011156782,0.010569583,0.004501859,0.003523194,0.012135447,0.01683304,0.009786651,0.007046389,0.003718927,0.004501859,0.008612253,0.01037385,0.01037385,0.006850656,0.007633588,0.01233118,0.015658642,0.008807986,0.002544529,0.001370131,0.007829321,0.009003719,0.009786651,0.01037385,0.011352515,0.002935995,0.008025054,0.008025054,0.005284792,0.009590918,0.000978665,0,0.008807986,0.016637307,0.007437855,0.005871991,0.010765316,0.012526913,0.007242122,0.012135447,0.018398904,0.012135447,0.010569583,0.003327461,0.006850656,0.012526913,0.012722646,0.012135447,0.009003719,0.000391466,0.000587199,0.004501859,0.008025054,0.00645919,0.007633588,0.003523194,0.006654923,0.004501859,0.004697592,0.004306126,0.002935995,0.002935995,0.003327461,0.003523194,0.004110393,0.004697592,0.005284792,0.005284792,0.005284792,0.005284792,0.004893326,0.004697592,0.004501859,0.004110393,0.003718927,0.003718927,0.004110393,0.007437855,0.014484243,0.006850656,0.004306126,0.011156782,0.009786651,0.016637307,0.001565864,0,0.006850656,0.003327461,0.007046389,0.009395185,0.007633588,0.013897044,0.009982384\nSRI-1053074-001.txt,O=C(CCCn1nnc2ccccc2c1=O)Nc1nnc(s1)C1CCC1,0.966438888,0.974326522,0.982678136,0.989921356,0.99682948,1,0.99894316,0.994432258,0.985204241,0.972522161,0.955896265,0.936744263,0.91473106,0.88763987,0.854774726,0.815542765,0.772908295,0.729603633,0.689263279,0.654129795,0.625827106,0.604226329,0.588863485,0.579197266,0.574093502,0.572546907,0.573139768,0.575176119,0.577341352,0.579666399,0.581380542,0.582785366,0.584066462,0.584888735,0.585355292,0.585149079,0.583370495,0.580297926,0.575529258,0.569327412,0.561963042,0.553938791,0.545303635,0.536624659,0.527888975,0.519498697,0.511049133,0.502346958,0.493678293,0.484581736,0.475482602,0.465607593,0.455430997,0.444862598,0.434417926,0.423916546,0.414041536,0.404432026,0.395247829,0.386970968,0.37894414,0.371157034,0.363720489,0.356271056,0.349262403,0.342104246,0.335402334,0.329360303,0.323349203,0.317711864,0.312515305,0.306756816,0.301168453,0.29531459,0.289677251,0.283859476,0.27867065,0.274170058,0.270069004,0.266730936,0.263913556,0.261065243,0.257647268,0.253185341,0.247640798,0.240570281,0.232252177,0.223457207,0.214352918,0.205545059,0.197531119,0.190857561,0.185738332,0.182204362,0.179698878,0.177340321,0.173680046,0.167857115,0.159118853,0.147382775,0.133489196,0.118461447,0.102771241,0.087805356,0.073932398,0.061505507,0.050882977,0.041884371,0.03441174,0.028341354,0.0232711,0.019149424,0.015837133,0.012986243,0.010885451,0.008988295,0.00756285,0.006258555,0.005242957,0.004335621,0.003673163,0.003129277,0.002569925,0.002172966,0.001894579,0.001621347,0.001257897,0.001085194,0.00102333,0.00085836,0.000675347,0.000680502,0.000579973,0.000538731,0.00044078,0.000381493,0.000389226,0.000394382,0.000366027,0.000317052,0.000213946,0.000219101,0.000332518,0.000213946,0.000270654,0.000219101,0.000195902,0.000183014,0.000175281,0.00016497,0.000152082,0.00015466,0.00015466,0.00015466,0.000146927,0.000136616,0.000126305,0.00012115,0.000113417,0.000103106,0.000103106,9.8E-05,0.000100529,0.000100529,0.000103106,9.8E-05,0.000108262,5.41E-05,0.000167548,0.000221679,0,7.22E-05,0.000131461,0.000103106,0.000146927,0.000159815,0.000110839,0.00012115,0.000144349,0.000146927,9.28E-05\nSRI-1053064-001.txt,OC(=O)C(Cc1ccccc1)NS(=O)(=O)c1cccc(c1)C(F)(F)F,1,0.958745438,0.918548686,0.878351933,0.838155181,0.797958428,0.756703866,0.715449304,0.675252552,0.632940181,0.59295499,0.552546676,0.515206008,0.477442217,0.441370921,0.406992119,0.373776908,0.341619506,0.311471942,0.283016872,0.256677421,0.23255937,0.210451156,0.190352779,0.172475803,0.156502883,0.142434019,0.130374993,0.120220024,0.111440207,0.104035542,0.098746496,0.09462104,0.09262178,0.091616861,0.091468768,0.091891892,0.093478606,0.095943301,0.100174539,0.104871212,0.109356323,0.113407733,0.117385095,0.120833554,0.124779182,0.129359496,0.134807214,0.141492569,0.14642196,0.146993177,0.143491828,0.138022954,0.132596393,0.129211403,0.12928545,0.129317184,0.127265034,0.119648807,0.106807003,0.090284022,0.074120696,0.059395991,0.047686042,0.037848416,0.029946581,0.024044005,0.019897393,0.016967261,0.014767018,0.012630243,0.011974401,0.010303062,0.009848204,0.008589411,0.008081663,0.007309462,0.006558418,0.005669858,0.00565928,0.005553499,0.005225578,0.004865923,0.004284128,0.004337018,0.004389908,0.004072566,0.003723489,0.003490771,0.003088803,0.003152272,0.003046491,0.003014756,0.003184006,0.003184006,0.003173428,0.002877241,0.002623367,0.002644523,0.002581055,0.002189665,0.002253134,0.002200243,0.00232718,0.001946369,0.001671339,0.002316602,0.001724229,0.000973185,0.001406886,0.001576136,0.001480933,0.001248215,0.001586714,0.001734807,0.001015497,0.000909716,0.000793357,0.001459777,0.000867404,0.000952028,0.000835669,0.000476014,0.000539483,0.000877982,0.000687576,0.001068387,0.000867404,0.000634686,0.000190406,0.000476014,0.000507748,0.000285609,0.000676998,0.000317343,0.000169249,0.000856826,0.00066642,0.000539483,0.000539483,0.000613529,0.000846247,0.000550061,0.000856826,0.000317343,0,3.17E-05,0.000327921,0.000835669,0.001174168,0.001438621,0.001586714,0.001523245,0.001353996,0.001131856,0.000920294,0.000751045,0.000613529,0.000507748,0.000454858,0.000433702,0.000433702,0.000486592,0.000602951,0.000708732,0.000571217,0.000349077,0.000359655,0.000856826,0.000920294,0.000486592,0.000158671,0.000539483,0.000592373,0.000179828,0.000465436,0.000899138,0.000518327,0.000179828,0.000539483,8.46E-05\nSRI-0000149.txt,CO[C@H]1O[C@@H]2COC(O[C@H]2[C@@H](SCC2=CC=CC=C2)[C@@H]1NC(C)=O)C1=CC=CC=C1,1,0.968233799,0.936467598,0.968233799,0.904701398,0.904701398,0.904701398,0.872935197,0.841168996,0.841168996,0.809402795,0.777636595,0.714104193,0.682337992,0.650571792,0.58703939,0.555273189,0.517153748,0.463151207,0.418678526,0.371029225,0.326556544,0.285260483,0.237611182,0.196315121,0.18043202,0.189961881,0.202668361,0.221728081,0.247141042,0.269377382,0.291613723,0.310673443,0.323379924,0.331003812,0.344027954,0.345933926,0.358005083,0.372617535,0.373570521,0.377064803,0.380241423,0.383418043,0.386594663,0.358640407,0.35292249,0.346886912,0.327827192,0.329733164,0.310991105,0.313532402,0.304955527,0.294472681,0.284307497,0.276683609,0.282083863,0.279224905,0.278907243,0.289707751,0.284307497,0.293202033,0.297013977,0.289707751,0.300508259,0.292249047,0.289707751,0.290343075,0.273189327,0.269695044,0.269377382,0.280813215,0.278271919,0.236975858,0.24047014,0.237611182,0.217598475,0.204574333,0.179161372,0.171537484,0.15184244,0.143265565,0.128653113,0.122935197,0.118170267,0.107052097,0.109593393,0.105781449,0.107052097,0.106099111,0.090533672,0.106416773,0.092757306,0.10133418,0.103557814,0.093074968,0.088310038,0.08545108,0.100063532,0.084180432,0.093074968,0.104510801,0.085133418,0.079733164,0.091168996,0.092121982,0.081956798,0.087992376,0.08227446,0.092121982,0.076238882,0.071473952,0.077827192,0.078144854,0.084180432,0.063850064,0.059720457,0.069250318,0.071791614,0.067662008,0.068297332,0.06639136,0.068932656,0.056861499,0.065438374,0.06639136,0.064485388,0.074650572,0.072109276,0.060991105,0.059402795,0.061944091,0.063850064,0.060991105,0.052414231,0.043519695,0.06956798,0.057496823,0.055590851,0.052414231,0.043519695,0.042249047,0.032401525,0.065438374,0.049555273,0.048284625,0.049237611,0.047331639,0.044790343,0.038754765,0.030813215,0.025095299,0.02064803,0.018424396,0.018106734,0.019695044,0.021283355,0.021918679,0.022236341,0.022871665,0.022871665,0.022871665,0.021918679,0.020965693,0.020012706,0.01747141,0.016836086,0.01905972,0.018742058,0.006035578,0.018106734,0.009847522,0.006670902,0.018424396,0.00476493,0.008894536,0.00794155,0.020965693,0,0.009212198,0.006670902,0.006988564\nSRI-0000388.txt,CNC(CCCNS(=O)(=O)C1=CC=C(C)C=C1)C(O)=O,0.787429684,0.830700995,0.871267849,0.908048464,0.94158373,0.970250974,0.989182172,1,1,0.994050195,0.975118996,0.945910861,0.908589355,0.864236261,0.807983557,0.745781047,0.681955863,0.613262657,0.542946776,0.473171787,0.405019472,0.344601904,0.289160537,0.236694072,0.194883167,0.159130247,0.131490697,0.109205971,0.09108611,0.078483341,0.070478148,0.060038944,0.055225011,0.051925573,0.050356988,0.048680225,0.048463868,0.046408481,0.04711164,0.04586759,0.044136737,0.046787105,0.045705322,0.045488966,0.048085244,0.045380788,0.044136737,0.041864994,0.039809606,0.038078754,0.035212029,0.032507572,0.03018174,0.030830809,0.027260926,0.026503678,0.022338814,0.019093466,0.015361315,0.012007789,0.009573778,0.007680658,0.006436608,0.005138468,0.004218953,0.005463003,0.005571181,0.004922112,0.005246646,0.003353527,0.003028992,0.004110775,0.003407616,0.006003894,0.00378624,0.005300736,0.004273042,0.003840329,0.004164864,0.003083081,0.003732151,0.005949805,0.004922112,0.00503029,0.003299437,0.001189961,0.002055387,0.004543488,0.003678061,0.00378624,0.003515794,0.004273042,0.004164864,0.002163566,0,0.002217655,0.001947209,0.002325833,0.00313717,0.001730852,0.003894418,0.003245348,0.003299437,0.004110775,0.001027694,0.003245348,0.004218953,0.002271744,0.004273042,0.003191259,0.001947209,0.004327131,0.003623972,0.003245348,0.002325833,0.003407616,0.002217655,0.00567936,0.003083081,0.000811337,0.00313717,0.005300736,0.0024881,0.003461705,0.004759844,0.001027694,0.000594981,0.001730852,0.002974903,0.003353527,0.003299437,0.004705755,0.004597577,0.003191259,0.004543488,0.00438122,0.002812635,0.004164864,0.004922112,0.003191259,0.002217655,0.002812635,0.004056685,0.00438122,0.003461705,0.003515794,0.00378624,0.003948507,0.003948507,0.003678061,0.003245348,0.003028992,0.002920814,0.002758546,0.002650368,0.002650368,0.002758546,0.002866724,0.002920814,0.002920814,0.002920814,0.003028992,0.003083081,0.003083081,0.003083081,0.003083081,0.003678061,0.003840329,0.008437906,0.004597577,0.003515794,0.002163566,0.00503029,0.003407616,0.002163566,0.003299437,0.001839031,0.002325833,0.002217655,0.004435309,0.007410212\nSRI-1052815-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)CCn1ccc2ccc(Br)cc12,0.960229597,0.979550679,0.99308954,0.999435881,1,0.992525421,0.980396858,0.967563146,0.947536915,0.921446402,0.894086621,0.860789485,0.82319094,0.776594694,0.720972541,0.654575712,0.582072292,0.508962444,0.439406547,0.376225196,0.321985135,0.276545334,0.239172437,0.208935648,0.185158024,0.166443369,0.152410904,0.141678537,0.134091133,0.128840594,0.125606781,0.124093531,0.123976476,0.125137151,0.127341447,0.130563978,0.134648201,0.139501037,0.14510274,0.151127533,0.157894143,0.165076791,0.172943433,0.181173932,0.189651233,0.198355593,0.207282779,0.216301635,0.225279592,0.234150366,0.242946395,0.25139831,0.259768429,0.267814179,0.275218244,0.28178177,0.287390526,0.292830045,0.298091867,0.303338175,0.308207934,0.312070741,0.314311704,0.314685433,0.313499372,0.310929809,0.307560608,0.304270382,0.302341095,0.301238242,0.299552936,0.294117647,0.28296219,0.266800175,0.248780797,0.232047612,0.218515802,0.206756738,0.195069598,0.180982132,0.16374829,0.144664138,0.125616653,0.10771574,0.09176527,0.077813192,0.065680398,0.055317529,0.046252133,0.038564599,0.032030688,0.026541808,0.022045778,0.018261949,0.015252373,0.012819609,0.010781728,0.009252965,0.00809229,0.007116364,0.006439421,0.00586966,0.005407083,0.00506297,0.004806296,0.004617316,0.004463593,0.00430846,0.004208329,0.004027811,0.003951655,0.003914987,0.003824728,0.003847293,0.003745751,0.003658313,0.003628697,0.003582157,0.003513052,0.003410101,0.003295866,0.003317021,0.003175991,0.003073039,0.003046244,0.002953164,0.002820596,0.002692259,0.002628795,0.002576614,0.002472252,0.002391865,0.002246605,0.0021775,0.002114037,0.001984289,0.001881338,0.001758642,0.001635946,0.001538635,0.001483633,0.001289012,0.0012326,0.001171958,0.001036569,0.000927976,0.000839127,0.000789767,0.000740406,0.000651558,0.000548606,0.000456937,0.000392063,0.000351164,0.000320138,0.000291932,0.000265136,0.000241161,0.000214365,0.000184749,0.000155133,0.000119875,8.04E-05,3.67E-05,2.4E-05,1.83E-05,7.05E-06,3.67E-05,8.46E-06,1.83E-05,3.38E-05,5.5E-05,5.5E-05,3.53E-05,3.1E-05,3.24E-05,0,2.54E-05,4.65E-05,2.68E-05,1.97E-05\nSRI-0000363.txt,COC(C1=NC2=C(N1)C=CC=C2)C1=CC=CC=C1,1,0.961034725,0.921382838,0.877439621,0.829376727,0.780970527,0.731706061,0.680725063,0.631803903,0.584942582,0.541514324,0.499459292,0.461008977,0.426678339,0.395265805,0.368316254,0.344799767,0.324373037,0.30789433,0.293818769,0.282661311,0.274593611,0.268414096,0.2632645,0.259522461,0.257599945,0.255351288,0.254115385,0.25358326,0.254956486,0.256415538,0.259917263,0.26348765,0.268173782,0.274490619,0.281305251,0.290471531,0.299895292,0.310194483,0.321832569,0.336285768,0.355699744,0.377740014,0.401084848,0.422644489,0.442144292,0.459807405,0.478260123,0.500575038,0.530150883,0.564979316,0.598537515,0.6165611,0.60717167,0.574815044,0.539076849,0.523490739,0.540381413,0.576600237,0.595825394,0.570952847,0.502772199,0.411109395,0.317403917,0.235319361,0.168391781,0.117942908,0.080951645,0.055821618,0.038587638,0.027069708,0.020581218,0.015603275,0.012444856,0.010247696,0.007827386,0.006694474,0.005887704,0.005510067,0.004926447,0.004686132,0.003827866,0.002986766,0.002626294,0.002523302,0.002437475,0.002317318,0.002506137,0.00187102,0.001802359,0.001441887,0.001150076,0.00106425,0.000600786,0.001768028,0.00132173,0.001253068,0.000961258,0.000635117,0.000652282,0.000823935,0.001150076,0.000703778,0.000274645,0.001407556,0.001304564,0.000892597,0.000188819,0.000360472,0.000789605,0.001596375,0.001682201,0.000274645,0.000274645,0.000377637,1.72E-05,0.000978423,0.000858266,0.001150076,0.000909762,0,0.000566456,0.000377637,0.000497794,0.000411968,0.000686613,0.001167242,0.000411968,0.000497794,0.00080677,0.000961258,0.000738109,0.00051496,0.000308976,0.000308976,0.000326141,0.00109858,0.000926927,0.000686613,0.000446298,0.000772439,0.000463464,0.00080677,0.001373226,0.000823935,0.00051496,0.000446298,0.000429133,0.000497794,0.00051496,0.000497794,0.000480629,0.000446298,0.000394802,0.000326141,0.000274645,0.000240314,0.000223149,0.000171653,0.000137323,0.000102992,0.000102992,0.000120157,0.000154488,0.000154488,0.000137323,0.000360472,0.000789605,0.001150076,0.000394802,0.000188819,0.000240314,0.000480629,0.000669447,0.000360472,0.000411968,0.000652282,0.000377637,0.000429133,0.000652282,0.000532125\nSRI-0000405.txt,CSC(C1=NC2=C(C=CC=C2)N1C)C1=CC=CC=C1,1,0.964386158,0.927090976,0.885821717,0.840272683,0.793042309,0.743672047,0.690939105,0.638206163,0.584556126,0.534727317,0.488261189,0.445616288,0.409085351,0.377292737,0.349168501,0.327311079,0.309580582,0.294142822,0.282067743,0.273202494,0.266477134,0.261585962,0.258376131,0.257000489,0.256389093,0.257000489,0.258116288,0.26021032,0.262533627,0.265177916,0.268265468,0.271857422,0.275510516,0.280646246,0.285965395,0.29195708,0.29883529,0.3065236,0.314028491,0.323184153,0.332538518,0.342519565,0.355114331,0.36989484,0.386631817,0.403108951,0.418042309,0.433220225,0.448398141,0.464661286,0.485020787,0.507948154,0.532190022,0.551051602,0.56165933,0.55985571,0.547918195,0.535201149,0.531013084,0.538074713,0.549110418,0.552106261,0.535002446,0.497294571,0.447098924,0.39380044,0.342091587,0.293011739,0.248700783,0.209357422,0.1747371,0.14389215,0.117510394,0.094659452,0.076883101,0.062423575,0.050623624,0.040825997,0.033901932,0.02832294,0.023783321,0.01961054,0.016461849,0.013649425,0.011815236,0.009705918,0.00859012,0.007413182,0.006603081,0.005731842,0.005181585,0.004126926,0.003821228,0.003576669,0.002781854,0.003148692,0.002842993,0.00174248,0.002094033,0.002201027,0.001482636,0.002063463,0.00249144,0.002216312,0.001513206,0.001834189,0.001559061,0.001635485,0.001727195,0.002201027,0.002155172,0.002170457,0.002185742,0.002002323,0.002201027,0.00177305,0.00171191,0.001788335,0.002292737,0.00255258,0.002124603,0.002384446,0.002277452,0.002231597,0.001895329,0.00255258,0.002185742,0.002002323,0.002063463,0.002308022,0.002537295,0.002506725,0.002980558,0.002965273,0.002506725,0.002873563,0.002567865,0.002735999,0.001880044,0.002124603,0.002094033,0.001941184,0.00165077,0.00168134,0.001589631,0.001635485,0.001696625,0.001666055,0.001528491,0.001390927,0.001268648,0.001192223,0.001115798,0.001069944,0.001039374,0.001039374,0.001024089,0.001008804,0.000978234,0.000947664,0.00093238,0.000917095,0.000917095,0.000855955,0.000687821,0.000641966,0.000672536,0.001039374,0.000336268,0,0.000443262,0.000397408,0.000672536,0.000152849,7.64E-05,0.000122279,0.000305698,0.000320983,0.000412693,0.000626681\nSRI-1052805-001.txt,CC(Oc1ccc2c3CCCc3c(=O)oc2c1)C(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(O)=O,1,0.990623474,0.970562068,0.937199079,0.891406741,0.836237876,0.770602191,0.699733096,0.62622549,0.553524702,0.485119671,0.423888773,0.370377154,0.325238992,0.288059975,0.257989673,0.233567092,0.214094446,0.198154351,0.184591096,0.172990371,0.162414521,0.152514654,0.144141197,0.136858035,0.13101406,0.126740109,0.123883539,0.122204487,0.121484893,0.121210139,0.121061859,0.121149082,0.121607006,0.122677674,0.124696898,0.127956877,0.132568819,0.138343015,0.145277284,0.153079426,0.16144634,0.170506681,0.179931181,0.189667504,0.19956301,0.209480322,0.219325675,0.229027109,0.238702376,0.247867385,0.256984422,0.265913928,0.274453109,0.28236428,0.28963872,0.295713837,0.301095527,0.306176296,0.310925616,0.314968425,0.31862309,0.321514549,0.32378236,0.324663317,0.324425633,0.323099836,0.321383714,0.3208124,0.320862553,0.32092579,0.318378864,0.311967937,0.302159654,0.291040838,0.280861855,0.273892698,0.269995988,0.269204434,0.27078536,0.274712599,0.280164067,0.287117961,0.294985521,0.303249948,0.311712808,0.320007763,0.327766293,0.334894634,0.341660997,0.347897477,0.353495046,0.358527842,0.363076547,0.366975438,0.370224513,0.372448713,0.373046194,0.372082374,0.36954417,0.365182995,0.358863652,0.350856535,0.341456022,0.331325012,0.320297781,0.308932559,0.297652379,0.286317685,0.274819447,0.263059539,0.251153531,0.238691473,0.225642837,0.211584589,0.196837276,0.180980043,0.164520969,0.14789835,0.131168882,0.114899519,0.099443514,0.084883731,0.071817651,0.060090451,0.049625811,0.040755181,0.033240876,0.027006577,0.021908363,0.017763066,0.014433309,0.011563656,0.009627294,0.007765072,0.006301898,0.005178895,0.004271771,0.003449689,0.002959057,0.002479328,0.002056294,0.001720484,0.001478438,0.00122331,0.001033598,0.000937653,0.000902763,0.000848249,0.000730497,0.000597481,0.000477549,0.000399048,0.000346713,0.000309643,0.000283476,0.000255129,0.000231142,0.000202795,0.000180989,0.000163544,0.00014828,0.000128655,0.00011121,8.94E-05,8.07E-05,0.000106849,0.000119932,0.000119932,0.00014828,0.000102488,0.000130835,8.29E-05,4.58E-05,3.71E-05,4.8E-05,0.000102488,0.00011121,0,0.000167905,0.00011121\nSRI-1052833-001.txt,CCCc1cc(=O)oc2cc(OCC(=O)N[C@@H](Cc3c[nH]c4ccccc34)C(O)=O)ccc12,1,0.99539188,0.9909061,0.977856558,0.954911114,0.921199797,0.877470238,0.82353213,0.757863029,0.684309829,0.609370115,0.539881304,0.478031912,0.425643438,0.38304212,0.349099718,0.322932667,0.30350788,0.289357283,0.279706059,0.273806579,0.271019958,0.270625753,0.272324912,0.275383398,0.279515753,0.284096686,0.288568873,0.292674041,0.296289852,0.299814588,0.303248249,0.30716583,0.311427321,0.315217125,0.317434188,0.316377991,0.310811546,0.299639235,0.284020564,0.266197064,0.248975747,0.234709607,0.224346096,0.218424866,0.216713473,0.2185975,0.223421753,0.230199359,0.238617673,0.24785838,0.257747486,0.26814634,0.278739577,0.288997061,0.299136283,0.30896286,0.319020523,0.329540357,0.341028032,0.352767183,0.364343214,0.37528308,0.385226559,0.393500784,0.399730581,0.404183738,0.408596114,0.414737555,0.423933404,0.4343676,0.443131183,0.447210524,0.446078205,0.441691656,0.4368742,0.433233921,0.431563308,0.431977903,0.433556082,0.436431059,0.439792675,0.443487327,0.44754356,0.451529107,0.455348817,0.458854522,0.462055738,0.464656131,0.466958831,0.468462247,0.469570099,0.469984694,0.469797107,0.469126958,0.467645292,0.465902634,0.463058921,0.459414565,0.455131325,0.450009379,0.443938624,0.437163736,0.429381588,0.420926572,0.411732082,0.401887834,0.391643943,0.381374226,0.370612431,0.359529836,0.348614438,0.337393191,0.326033293,0.314431434,0.302614802,0.290285703,0.27754201,0.264531888,0.25109086,0.237392919,0.223586232,0.209500882,0.195552825,0.181581659,0.167702927,0.154274133,0.141500534,0.129670309,0.118605385,0.10845121,0.098854359,0.089680259,0.0810295,0.07300675,0.065606573,0.058809936,0.052584217,0.046930775,0.04166746,0.036957391,0.032667354,0.028872112,0.025344657,0.022273937,0.019737432,0.01814566,0.017319189,0.016230368,0.014200892,0.011880521,0.009792594,0.008328598,0.007412412,0.006811589,0.006331747,0.005877731,0.005414201,0.004937077,0.004435485,0.003905347,0.00329365,0.002628939,0.00198054,0.001404185,0.001008621,0.000792488,0.000694616,0.000589948,0.000447219,0.000371096,0.000301771,0.000240601,0.000186228,0.000131855,9.79E-05,5.03E-05,4.62E-05,9.52E-06,1.09E-05,0\nSRI-0000407.txt,CNC(C1=NC2=C(N1)C=CC(C)=C2)C1=CC=CC=C1,1,0.941205684,0.885615418,0.832908797,0.783406225,0.735185274,0.69000817,0.644350459,0.601576393,0.560244149,0.520994537,0.483667356,0.449704426,0.419586357,0.392992743,0.371525608,0.353582929,0.340446324,0.330513769,0.32410567,0.319780202,0.318818987,0.318658785,0.320581215,0.323144455,0.327149517,0.330994377,0.334342609,0.336841768,0.337786963,0.338075327,0.33700197,0.33437465,0.331458964,0.327293699,0.323112414,0.317265023,0.31064866,0.303183224,0.294147803,0.285400747,0.27790327,0.271383028,0.266961439,0.265455536,0.265840022,0.269300396,0.275788597,0.284583714,0.296422678,0.309959789,0.323977508,0.338652056,0.354720367,0.372022236,0.391855305,0.412217042,0.434084683,0.45503917,0.47237308,0.485205299,0.492382371,0.4903478,0.481841047,0.472981849,0.469377293,0.471716249,0.474231429,0.467823329,0.443824995,0.403966614,0.351324074,0.293186588,0.235657872,0.182150238,0.135339069,0.097819644,0.069399721,0.049534612,0.034956185,0.025215873,0.018551449,0.013200686,0.010285,0.007962064,0.006231877,0.005206581,0.00511046,0.003748738,0.002995787,0.00318803,0.002867625,0.002611301,0.002210794,0.002194774,0.001794268,0.001249579,0.00193845,0.001682126,0.00131366,0.002050592,0.002258855,0.000993255,0.001137438,0.001345701,0.001329681,0.000897134,0.001041316,0.001377741,0.001153458,0.001473863,0.001393762,0.001041316,0.000592749,0.000752952,0.001233559,0.001137438,0.001489883,0.001666106,0.001233559,0.000576729,0.001201519,0.001249579,0.001521924,0.000144182,0.000977235,0.00065683,0.000288364,0.000929174,0.00062479,0.001441822,0.001489883,0.000945195,0.000512648,0.000929174,0.001169478,0.000961215,0.00062479,0.001345701,0.000272344,0.000384486,0.000897134,0.00062479,0.000592749,0.000801012,0.000897134,0.000929174,0.000945195,0.000977235,0.000945195,0.000897134,0.000849073,0.000784992,0.000688871,0.000608769,0.000560709,0.000528668,0.000512648,0.000464587,0.000448567,0.000448567,0.000464587,0.000512648,0.000592749,0.00065683,0.000544688,0.000464587,0.000192243,0.001249579,0.00065683,0.000288364,0.000608769,0,0.000368466,0.000304385,0.000688871,0.000400506,9.61E-05,0.000400506,0.000560709,0.001473863\nSRI-0000361.txt,CCCOC(C1=NC2=C(N1)C=CC=C2)C1=CC=CC=C1,1,0.962245343,0.923493863,0.879135256,0.834527444,0.786555355,0.735592798,0.686000872,0.638651797,0.591053517,0.545324279,0.504205345,0.466699894,0.431935705,0.400286587,0.372624759,0.348576413,0.328141549,0.311070961,0.297240047,0.285776587,0.277428198,0.271198056,0.266463149,0.262725064,0.259983802,0.257990156,0.256744128,0.256058813,0.256793969,0.258912217,0.261728241,0.265279422,0.269453617,0.275671298,0.281689614,0.290075385,0.29913401,0.309176998,0.320515856,0.334321849,0.353186717,0.37488007,0.397844371,0.420335182,0.439735842,0.457653729,0.475883123,0.498199489,0.527630677,0.563379229,0.598093577,0.618640583,0.61188711,0.58017569,0.543206031,0.525026478,0.540826117,0.577833157,0.600647935,0.579839262,0.513089527,0.420908355,0.324864494,0.240857267,0.17225095,0.120067286,0.082350009,0.056096193,0.039312192,0.027798891,0.020385023,0.015513052,0.012410442,0.010005607,0.008634976,0.007314186,0.006504268,0.005694349,0.00485951,0.003999751,0.004136814,0.003214753,0.002404835,0.002031026,0.002317613,0.001594916,0.001869042,0.001669678,0.001582456,0.001295869,0.001470313,0.000710236,0.000685316,0.001146346,0.001270949,0.001569996,0.001258489,0.000710236,0.000809918,0.001283409,0.000797458,0.00088468,0.001133886,0.000984362,0.00087222,0.001133886,0.000373808,0.001046664,0.001158806,0.000909601,0.001432933,0.000934521,0.000523332,0.001034203,0.001146346,0.00089714,0.000909601,0.000760077,0.001059124,0.00085976,0.001383091,0.000685316,0.001158806,0.001233568,0.000946981,0.000498411,0.000747617,0.001221108,0.00085976,0.001208647,0.001470313,0.001395552,0.001034203,0.000996823,0.001221108,0.001221108,0.000523332,0.001146346,0.00085976,0.00046103,0.000984362,0.001295869,0.001345711,0.001121425,0.000822379,0.000747617,0.000822379,0.00087222,0.000834839,0.000760077,0.000685316,0.000623014,0.000573173,0.000523332,0.000498411,0.00046103,0.00044857,0.00043611,0.00042365,0.000398729,0.000386269,0.000373808,0.000411189,0.000411189,0.000249206,0.000137063,1.25E-05,0.000747617,0.000473491,0.000236745,0.000299047,0.001133886,0.000199365,0.000236745,0,0.000560713,0.000249206,0.00043611,0.001046664,0.001246028\nSRI-1053193-001.txt,COc1ccc(cc1)C(=O)COC(=O)CCc1c[nH]c2ccccc12,0.994122833,1,0.996422594,0.980068737,0.948638669,0.900854745,0.835439318,0.754436622,0.663212766,0.567133859,0.4741213,0.390563314,0.317993075,0.257969311,0.210543127,0.174743513,0.148424025,0.129923725,0.117786097,0.109966909,0.105674022,0.104268612,0.105060752,0.107590489,0.111704506,0.117326144,0.124225428,0.13235125,0.141780271,0.15225696,0.163960189,0.176762192,0.19066297,0.205700852,0.221484879,0.238239916,0.256045178,0.274190292,0.293091773,0.312417432,0.332047171,0.351751013,0.371536624,0.390951718,0.410364257,0.429109865,0.447244758,0.464296209,0.480054683,0.494793596,0.507651816,0.519240057,0.529261904,0.537477162,0.543893496,0.548597785,0.551715238,0.5535806,0.555175101,0.556281542,0.556554958,0.555290089,0.552285068,0.546722202,0.538317853,0.526606958,0.511520525,0.494420524,0.477080326,0.459737572,0.442655457,0.42378464,0.400546832,0.372246994,0.340065671,0.306386948,0.273165621,0.242164842,0.213870115,0.187752495,0.164302597,0.143300668,0.124703267,0.108208869,0.093712709,0.08108191,0.070201485,0.060836346,0.05276163,0.045923673,0.0399954,0.034895041,0.03070181,0.027027303,0.023874075,0.021168023,0.018842709,0.016831696,0.015073656,0.01352515,0.012257727,0.011049074,0.009952855,0.008976734,0.008238255,0.007566214,0.006832846,0.006104588,0.005629304,0.005131022,0.004645517,0.004203452,0.003797161,0.003447086,0.003224776,0.002752047,0.002588509,0.002516961,0.002217992,0.001965018,0.001816811,0.001663494,0.001436073,0.001213763,0.001216318,0.001154991,0.000891796,0.000822803,0.000804916,0.000769142,0.000674597,0.000626046,0.000582606,0.00061327,0.000449731,0.000401181,0.000321967,0.000332188,0.000449731,0.000355185,0.000360296,0.000306635,0.00026064,0.000181426,0.000212089,0.000155873,0.000155873,0.000166094,0.000155873,0.000122654,8.43E-05,5.88E-05,4.09E-05,3.07E-05,2.56E-05,2.56E-05,2.56E-05,3.07E-05,3.07E-05,3.07E-05,2.81E-05,3.07E-05,4.09E-05,6.13E-05,8.18E-05,8.94E-05,0.000160983,0.000171204,0.000102212,2.81E-05,0,6.9E-05,4.6E-05,7.67E-05,0.000107322,2.81E-05,8.43E-05,0.000143096,9.97E-05,0.00013543,4.86E-05\nSRI-1053183-001.txt,COc1ccc(cc1)C(=O)NCC(=O)NC(CCSC)C(O)=O,0.933190807,0.959914484,0.959914484,0.973276323,0.986638161,1,1,0.986638161,0.983965794,0.966595404,0.957242117,0.942544094,0.921165152,0.895777659,0.861036879,0.808925708,0.751469802,0.681988242,0.607161945,0.533671833,0.457509353,0.400053447,0.345269909,0.309192945,0.2797969,0.255745591,0.2383752,0.218332443,0.202298236,0.184927846,0.168225548,0.151790486,0.146178514,0.14070016,0.133618386,0.122928915,0.117450561,0.116247996,0.100614645,0.094067344,0.088054516,0.097808658,0.095136291,0.102485302,0.100748263,0.098877606,0.102084447,0.108097274,0.116381614,0.118786745,0.129877071,0.137226082,0.143773383,0.151389631,0.15980759,0.165152325,0.169561732,0.178380545,0.186130412,0.187466595,0.196552646,0.203367183,0.207242117,0.218198824,0.218065206,0.225013362,0.231560663,0.233564939,0.233832175,0.226616782,0.229021913,0.227017638,0.228888295,0.233832175,0.235836451,0.238909674,0.244521646,0.239444148,0.237172635,0.238241582,0.239577766,0.237974345,0.235970069,0.23677178,0.226616782,0.217129877,0.215125601,0.204302512,0.20029396,0.1904062,0.181186531,0.179983966,0.17303581,0.174238375,0.167691074,0.167290219,0.161010155,0.15232496,0.135889898,0.132549439,0.120924639,0.107696419,0.096606093,0.086985569,0.072554784,0.065205772,0.053447354,0.036477819,0.03059861,0.029396045,0.016835917,0.016835917,0.015098878,0.014965259,0.009887761,0.010422234,0.012827365,0.011357563,0.006948156,0.004409407,0.005478354,0,0.000935329,0.00748263,0.004543025,0.012025655,0.00908605,0.00494388,0.011090326,0.011491181,0.011892036,0.004008552,0.00748263,0.005077499,0.009754142,0.010422234,0.009486905,0.000534474,0.003607696,0.010422234,0.011758418,0.006146446,0.003741315,0.002538749,0.006680919,0.007349011,0.007749866,0.007616248,0.007349011,0.006948156,0.006146446,0.005478354,0.005344735,0.005211117,0.00494388,0.004676644,0.004543025,0.004275788,0.004275788,0.004676644,0.005077499,0.005611972,0.005745591,0.006680919,0.008017103,0.00908605,0.009486905,0.008952432,0.006012827,0.003474078,0.006814538,0.011357563,0.004409407,0.006680919,0.006948156,0.006146446,0.009353287,0.005211117,0.009620524,0.012827365,0.007749866\nSRI-0000639.txt,COC(=O)C(NC(=O)C1=CC=CC=C1)C(C)O,0.885856715,0.910781882,0.935124684,0.954575632,0.970998288,0.984043235,0.99277869,0.998602327,1,0.996855236,0.990682181,0.981597307,0.968319415,0.952013231,0.932911702,0.909384209,0.882944897,0.854874967,0.823310854,0.789184341,0.75342721,0.715224152,0.676555202,0.636139162,0.595210641,0.554072469,0.513505014,0.472925912,0.433604715,0.395762722,0.359749351,0.325879078,0.294512969,0.265651024,0.239048651,0.215660925,0.194346413,0.175920426,0.159812246,0.146313055,0.134106712,0.124241471,0.115727314,0.108366237,0.102298007,0.097534272,0.093317959,0.089730599,0.086364536,0.083266362,0.080273012,0.077431077,0.07421643,0.071118255,0.067647367,0.063815414,0.059971814,0.055569144,0.05152754,0.04776547,0.043677277,0.03879707,0.03452252,0.030469269,0.025810359,0.02161734,0.017342791,0.014046612,0.010983379,0.008723808,0.006557415,0.005474219,0.005217979,0.004623968,0.003633949,0.003086528,0.002620637,0.00281864,0.002457575,0.001770386,0.001770386,0.001618971,0.001630618,0.001479204,0.001735444,0.001514146,0.001013313,0.000931782,0.001048255,0.000861898,0.000978371,0.000955076,0.000547422,0.000349418,0.000489186,0.000803662,0.000803662,0.000477538,0.000326124,0.000535775,0.000547422,0.00038436,0.000582364,0.000861898,0.000780367,0.00076872,0.001071549,0.001059902,0.000990018,8.15E-05,0.000430949,0.000605658,0.00025624,0.0006406,0.000547422,0.000139767,0.000559069,0,0.000733778,0.000815309,0.000733778,0.000605658,0.000733778,0.000792015,0.000594011,0.000174709,0.000617306,0.000687189,0.000174709,0.000757073,0.000803662,0.001211316,0.001141433,0.000419302,0.000430949,0.000920135,0.000361065,8.15E-05,0.00038436,0.000465891,0.00051248,0.000163062,0.000151415,0.000442596,0.000430949,0.000826956,0.000826956,0.000792015,0.000722131,0.000675542,0.0006406,0.000617306,0.000570716,0.000524127,0.000489186,0.000477538,0.000477538,0.000465891,0.000454244,0.000465891,0.000489186,0.000524127,0.000605658,0.000733778,0.000850251,0.000850251,0.00089684,0.000861898,0.000990018,0.000733778,0.000419302,0.00076872,0.000885193,0.00038436,0.000454244,0.001001666,0.001257906,0.000978371,0.000326124,0.001048255,0.000861898\nSRI-1053042-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)Cn1ccc2ccc(F)cc12,1,0.990925194,0.97182991,0.940368157,0.893993897,0.832888989,0.759526728,0.677798914,0.592833995,0.509287582,0.431960776,0.363726963,0.305368139,0.256738817,0.217238858,0.185904407,0.161080538,0.141876139,0.126727214,0.114869952,0.10586789,0.098866286,0.09359235,0.089718736,0.087081768,0.085517773,0.084917636,0.085154053,0.086263399,0.088127462,0.090589844,0.093739657,0.097495063,0.10177968,0.106588055,0.112022027,0.117806989,0.123888382,0.130297123,0.136922277,0.143632905,0.15039991,0.157321495,0.164086682,0.170717292,0.177342446,0.183551141,0.189596162,0.195088329,0.200191317,0.204414102,0.20814041,0.211024707,0.21330523,0.214647356,0.21526386,0.215414804,0.215402074,0.21600403,0.216956976,0.217915377,0.217999033,0.217186119,0.215083819,0.211355692,0.205377959,0.197476149,0.189176066,0.182860073,0.179273797,0.176567723,0.171413815,0.160489494,0.143854774,0.124010228,0.104176593,0.086165194,0.070710745,0.057773235,0.046739799,0.037690453,0.030143269,0.023980039,0.018902512,0.014788843,0.01150991,0.008998425,0.007023427,0.005541269,0.004328264,0.003389867,0.002706074,0.002191411,0.001824054,0.001514893,0.00123301,0.001009322,0.000907481,0.000896569,0.000771086,0.000652877,0.000681974,0.000560128,0.000520119,0.000509208,0.000427371,0.00038918,0.000318255,0.000372813,0.00036372,0.000321892,0.00028552,0.000312799,0.000294613,0.000209139,0.000225506,0.000230962,0.000152762,0.000185497,0.000249148,0.000263697,0.000225506,0.000209139,0.000230962,0.000263697,0.000189134,0.000141851,0.000178223,0.000141851,0.000190953,0.000201864,0.000163674,0.000218232,0.000160037,0.000165492,0.000130939,0.000170948,0.000136395,7.82E-05,0.000134576,0.000158218,0.000167311,0.000174585,0.000201864,0.000158218,0.000143669,0.000138213,0.000130939,0.000125483,0.000101842,7.82E-05,6.18E-05,5.27E-05,5.27E-05,6E-05,6.37E-05,6.37E-05,6.37E-05,6E-05,5.64E-05,5.82E-05,6.37E-05,6.91E-05,7.09E-05,7.27E-05,6.91E-05,4E-05,9.27E-05,0.000101842,0.00011639,4.91E-05,0.000105479,8.37E-05,8.37E-05,0.000109116,4.55E-05,3.64E-06,6.18E-05,2.73E-05,0,4.55E-05\nSRI-0000611.txt,C[C@@H]1CC2C3CCC4=CC(=O)C=C[C@]4(C)[C@@]3(F)[C@@H](O)C[C@]2(C)[C@@]1(O)C(=O)CO,0.540135468,0.56343168,0.587805174,0.612447988,0.639110704,0.666244731,0.69411939,0.722196038,0.751551959,0.780099918,0.808715207,0.835781904,0.862309961,0.887693406,0.910720297,0.932198597,0.950983693,0.967681556,0.980339613,0.990169806,0.996970146,1,0.999192039,0.995421554,0.988351894,0.97811772,0.964786362,0.947751848,0.928226121,0.905953327,0.8822666,0.856613835,0.82997805,0.802157256,0.77480104,0.748118124,0.721152422,0.695122608,0.670722183,0.646732471,0.623577652,0.6018031,0.58081631,0.560172904,0.539744954,0.520017237,0.500350116,0.480124157,0.459628877,0.438743082,0.417507171,0.39584708,0.373688746,0.351274559,0.328442924,0.305328504,0.282422806,0.259281453,0.236880731,0.214857058,0.193257565,0.172809415,0.153418349,0.135299821,0.118467298,0.102907313,0.088868989,0.076439854,0.065330389,0.055836846,0.04799289,0.040748172,0.035065512,0.030359139,0.026137542,0.02293263,0.02042795,0.018226256,0.016314081,0.015176203,0.013856533,0.012583994,0.011924159,0.011439383,0.010658354,0.010220708,0.009695533,0.009177092,0.009022232,0.008874106,0.008328732,0.007709296,0.007716029,0.007399577,0.007413043,0.007217786,0.00651082,0.006416558,0.006369427,0.005925048,0.005709592,0.005561466,0.005339276,0.005238281,0.004962228,0.004908364,0.004800636,0.004322592,0.004174466,0.004147534,0.003723354,0.003999407,0.003393437,0.003420369,0.002915393,0.003016388,0.003029854,0.002787466,0.002316155,0.002322888,0.002592209,0.002531611,0.002316155,0.002019903,0.002154563,0.002006437,0.001777514,0.001669786,0.001387,0.001063815,0.001501461,0.001259073,0.001003218,0.001003218,0.00111768,0.000774296,0.000834893,0.000767563,0.000552107,0.000686767,0.000740631,0.00076083,0.000673301,0.000619437,0.00033665,0.000276053,0.000262587,0.000235655,0.00020199,0.000188524,0.000181791,0.000161592,0.000175058,0.000188524,0.000195257,0.00020199,0.000208723,0.000215456,0.000222189,0.000228922,0.000222189,0.000222189,0.000215456,0.000208723,0.000181791,0.000148126,1.35E-05,0,5.39E-05,0.000107728,0.000262587,0.00020199,6.73E-05,0.000302985,0.000215456,6.73E-06,0.000148126,0.000276053,0.000215456,0.00020199,0.000316451\nSRI-1053334-001.txt,CC(C)C[C@H](NS(=O)(=O)c1ccc(F)cc1)C(O)=O,0.985175073,0.997013684,1,0.992640863,0.975149582,0.949445932,0.91318352,0.869242009,0.819114557,0.762054586,0.702434914,0.641215431,0.578716097,0.516750035,0.457983597,0.40337667,0.352929256,0.307601241,0.267179318,0.232090101,0.203186826,0.178869679,0.158178774,0.141114109,0.127462378,0.116157038,0.10698478,0.099092373,0.092927763,0.087531063,0.082944934,0.077622892,0.073879331,0.070381075,0.067053466,0.064152473,0.060888856,0.056089419,0.053103103,0.052047226,0.051300647,0.049839486,0.047429102,0.043888184,0.039963311,0.036017107,0.033414746,0.030577746,0.028455328,0.026460895,0.023453248,0.020765564,0.017533943,0.014664946,0.011337336,0.008916287,0.006953851,0.005567347,0.004714114,0.003284948,0.003188959,0.002549034,0.002058425,0.001567816,0.001119869,0.001183861,0.000831902,0.000533271,0.000693252,0.000639925,0.000789241,0.000970553,0.000810572,0.000533271,0.000639925,0.000799906,0.00051194,0.00013865,0.000799906,0.000917226,0.000874564,0.000245305,0.00025597,0.000597263,0.000735914,0.000405286,0.000266635,0.000405286,0.00065059,0.00051194,0.000746579,0.000554602,0.000426617,0.000309297,0.000533271,0.000245305,0.000778575,0.000863899,0.000543936,0.000458613,0.000458613,0.000639925,0.000714583,0.000159981,0.000405286,0.00039462,0.00065059,0.000874564,0.000437282,0.000725248,0.000927891,0.000287966,0.000778575,0.000277301,0,0.000351959,0.000725248,0.000725248,0.000565267,0.000618594,0.000725248,6.4E-05,0.000287966,0.001130534,0.000810572,0.000853233,0.000757244,0.001002549,0.000309297,0.000405286,0.000799906,0.000821237,0.001194527,0.000693252,0.000853233,0.000735914,0.000661256,0.000533271,0.000607929,0.000735914,0.000554602,0.000682587,0.000885229,0.000821237,0.000469278,0.000362624,0.00039462,0.00051194,0.000565267,0.000554602,0.00051194,0.000479944,0.000426617,0.000415951,0.00037329,0.000351959,0.000330628,0.000319962,0.000319962,0.000319962,0.000330628,0.000330628,0.000362624,0.000426617,0.000533271,0.000607929,0.000383955,0.000554602,0.000949222,0.000725248,0.000362624,0.000266635,0.00065059,0.00037329,0.000522605,0.000447947,0.00065059,0.000458613,0.00065059,0.000469278,0.000725248\nSRI-1053346-001.txt,c1csc(c1)-c1nc2nccc(-c3ccsc3)n2n1,0.654409073,0.629441077,0.606377419,0.586064472,0.568925424,0.55538346,0.545650173,0.54014875,0.538032818,0.539133103,0.542962939,0.548570159,0.555510416,0.563593276,0.572395552,0.581832609,0.591989082,0.602970768,0.614587235,0.627028914,0.639978417,0.653012558,0.665623512,0.677282297,0.687396452,0.696177569,0.703244782,0.708788523,0.713634007,0.71790819,0.721278869,0.72386877,0.725440907,0.72554882,0.724850562,0.72348367,0.721818432,0.72106516,0.721852287,0.723847611,0.726752785,0.729899176,0.732330382,0.733229653,0.733267739,0.732933422,0.732522931,0.732844553,0.734903355,0.738811481,0.74368024,0.749414416,0.755250156,0.761377895,0.766003322,0.769378233,0.770645677,0.770036288,0.767255954,0.76334148,0.757321653,0.749291692,0.738773394,0.725569979,0.709567186,0.689315602,0.664502068,0.636523101,0.60628855,0.575095481,0.546435184,0.52212101,0.504359878,0.493278742,0.489412935,0.491535214,0.49913141,0.511308598,0.526293628,0.544513918,0.564439648,0.585626475,0.607977063,0.630594259,0.654030321,0.677656817,0.701484326,0.725563631,0.749628125,0.77358259,0.797183695,0.819877064,0.841520932,0.862206282,0.88135335,0.89887115,0.915079189,0.92940828,0.942072132,0.953718221,0.964295765,0.973550851,0.981394611,0.988381418,0.99427852,0.997881952,1,0.9989907,0.996428307,0.989885845,0.982276954,0.971333354,0.958024143,0.942349319,0.926075687,0.908287047,0.889116704,0.869275611,0.848780694,0.826946393,0.804092212,0.779750532,0.753326774,0.724338507,0.692169994,0.657483522,0.621736969,0.585827488,0.550798235,0.517561177,0.485834894,0.453056993,0.41833455,0.383171994,0.349073751,0.316008083,0.284506089,0.254802636,0.22683848,0.20093101,0.176877096,0.154911607,0.135159383,0.117288222,0.101359486,0.08831265,0.080179008,0.075835,0.070407634,0.060648956,0.049720168,0.040063055,0.033480391,0.029411454,0.026804625,0.024773331,0.022841485,0.020875784,0.018857185,0.016785688,0.014623205,0.012132754,0.009451868,0.00683446,0.004580993,0.003195057,0.00247564,0.002033411,0.00168005,0.001371124,0.001074893,0.000924662,0.000679214,0.00050994,0.000412607,0.000372404,0.000241216,0.000148115,0.000118492,0,5.08E-05\nSRI-1053030-001.txt,CN1C(=O)N(CC(=O)NCCc2c[nH]c3ccccc23)C(=O)C11CCCCC1,0.995176013,1,0.99385812,0.975880067,0.942758674,0.892454937,0.823700694,0.739305794,0.644989395,0.54778855,0.455237631,0.373006065,0.302436611,0.244573637,0.198770629,0.163535634,0.136879378,0.117185577,0.10251469,0.091399628,0.083268475,0.077201193,0.072625865,0.069219235,0.066782376,0.065265555,0.064420115,0.064096858,0.06444498,0.065345126,0.066635667,0.068435959,0.070676378,0.073448927,0.076499974,0.079953849,0.083850337,0.087876128,0.092217716,0.096857695,0.101676708,0.106639944,0.111633019,0.116859833,0.121987184,0.127124481,0.132323943,0.137369236,0.142155924,0.146815796,0.151187223,0.15513593,0.159044851,0.162327151,0.164970397,0.167158597,0.168802234,0.170169859,0.171830902,0.173939531,0.176314226,0.17836815,0.179648744,0.179507008,0.177622172,0.173491945,0.167442069,0.160991851,0.156212623,0.154191025,0.153718573,0.151759139,0.145860945,0.134711071,0.119806444,0.104004158,0.089139316,0.075843514,0.064556877,0.054889011,0.046571364,0.039347817,0.03331286,0.028063667,0.0234585,0.019676395,0.016617888,0.013997021,0.011711844,0.009983663,0.008501655,0.00724344,0.006181665,0.005472987,0.004764308,0.004269477,0.003700047,0.003369331,0.00319527,0.00295407,0.002757629,0.002613407,0.002586055,0.002466698,0.002372208,0.002392101,0.002334909,0.002267771,0.002240419,0.002215553,0.002178254,0.002155874,0.002108629,0.002101169,0.002006679,0.001815211,0.001954461,0.001857484,0.001770453,0.001725694,0.001683422,0.001623744,0.0015392,0.001496928,0.001501901,0.001477035,0.001315407,0.001280594,0.001360165,0.001278108,0.001225889,0.001148805,0.001007069,0.001079181,0.000934958,0.000910092,0.000910092,0.000837981,0.000852901,0.000696245,0.000639054,0.000556996,0.000586835,0.000581862,0.000534617,0.000499805,0.000489858,0.000472452,0.000435153,0.000358069,0.000285958,0.000228766,0.000186494,0.000164115,0.000154169,0.000154169,0.000149195,0.000146709,0.000136763,0.00012433,0.00010941,9.2E-05,8.21E-05,8.7E-05,8.95E-05,9.7E-05,0.000121843,0.000213847,4.72E-05,8.7E-05,6.71E-05,0.000149195,0.000161628,6.22E-05,0,3.48E-05,7.46E-06,0.00012433,7.96E-05,9.7E-05,2.98E-05\nSRI-1053158-001.txt,O=C(NCCc1c[nH]c2ccccc12)c1ccc(s1)-c1ccccc1,0.990291262,0.999253174,1,0.991784914,0.970873786,0.936519791,0.888722928,0.82673637,0.753547423,0.672143391,0.590739358,0.513816281,0.445855116,0.385810306,0.337341299,0.297311426,0.264899178,0.23793876,0.215982076,0.197834205,0.182150859,0.169902913,0.159895444,0.151456311,0.145182972,0.139880508,0.135847647,0.132710978,0.130918596,0.129947722,0.129723674,0.130321135,0.131590739,0.133599701,0.13648245,0.140037341,0.144017924,0.149029126,0.154585512,0.160597461,0.16699776,0.173696789,0.181067961,0.188976848,0.196945482,0.20575056,0.214652726,0.22326363,0.232412248,0.241605676,0.250552651,0.260164302,0.269940254,0.279305452,0.288528753,0.297953697,0.30690814,0.315832711,0.324876774,0.334958925,0.345683346,0.35690814,0.367804332,0.379006721,0.389327857,0.399365198,0.407886482,0.416258402,0.425526512,0.436198656,0.447931292,0.460231516,0.470657207,0.47832711,0.482912621,0.485840179,0.488409261,0.491142644,0.494615385,0.498730396,0.503353249,0.507677371,0.511486184,0.51459298,0.517587752,0.520410754,0.522710978,0.524451083,0.525765497,0.52592233,0.525533981,0.524988798,0.522755788,0.519156087,0.515399552,0.510463032,0.503846154,0.495563854,0.486071695,0.474884242,0.462457058,0.448080657,0.432658701,0.416527259,0.399462285,0.382464526,0.365168036,0.348506348,0.331598208,0.314839432,0.298177745,0.281232263,0.264346527,0.246982823,0.228812547,0.210567588,0.192322629,0.1734354,0.154383869,0.135884989,0.118005975,0.100881255,0.085130695,0.07115758,0.05862584,0.047841673,0.038289768,0.030545183,0.024279313,0.019492158,0.01510829,0.012008962,0.009290515,0.007438387,0.005862584,0.004518297,0.003293503,0.003129201,0.002815534,0.001911875,0.001516057,0.001381628,0.001112771,0.000970874,0.000612397,0.000500373,0.000500373,0.000664675,0.000776699,0.000784167,0.000709485,0.000634802,0.000545183,0.000455564,0.000373413,0.00029873,0.000253921,0.000238984,0.000224048,0.000209111,0.000194175,0.000186706,0.000179238,0.00017177,0.000186706,0.000306199,0.000440627,0.000276326,0.000477969,0.000268857,0.000358476,0.000477969,0,0.000224048,0.000365945,0.000283794,5.23E-05,0.000112024,0.000149365,0.000477969,0.000365945\nSRI-1053020-001.txt,COC(=O)[C@H](C)NC(=O)N1CCN(CC1)C(=O)CCc1c[nH]c2ccccc12,0.992545846,0.999747317,1,0.99204048,0.973468266,0.94194604,0.895641847,0.833008004,0.755023657,0.664689421,0.569017252,0.476503623,0.39122305,0.31655517,0.254710962,0.204995546,0.166429776,0.137244869,0.115198262,0.098521172,0.086360794,0.077390541,0.07059968,0.065482846,0.061755769,0.059039425,0.057396984,0.056370459,0.055944056,0.056124093,0.056872667,0.058091863,0.059579535,0.061597842,0.064055186,0.06677153,0.06982268,0.073290756,0.077194711,0.081082874,0.085327951,0.089727797,0.09441507,0.099165514,0.103925433,0.10877695,0.113739016,0.11846735,0.123353611,0.128132482,0.132557596,0.136827942,0.14083297,0.144578998,0.147813343,0.150400187,0.152314262,0.153827203,0.15532435,0.157301596,0.159357806,0.161372954,0.162769029,0.163353358,0.16237737,0.159866331,0.155643363,0.150795004,0.146221439,0.143366119,0.141831069,0.140324445,0.136584734,0.129095836,0.118246252,0.105593142,0.092807373,0.080672264,0.070027985,0.060435499,0.051995881,0.044589106,0.037864574,0.032097081,0.026977088,0.022599352,0.018531153,0.015306284,0.012510976,0.010186291,0.00828485,0.006639251,0.005318981,0.004298773,0.003515455,0.002871113,0.002331002,0.001891965,0.001623489,0.001295001,0.001197087,0.001001257,0.000925452,0.000855964,0.000777001,0.00054011,0.000495891,0.00058433,0.000549586,0.000495891,0.000448513,0.000502208,0.00045483,0.00030322,0.000404293,0.0003885,0.000293744,0.000420086,0.000439037,0.000290586,0.000208464,0.000138976,0.000265317,0.00041061,0.000309537,0.000306378,0.000337964,0.000249525,0.000268476,0.000315854,0.000189512,0.00023689,0.000315854,0.000198988,0.000205305,0.000148451,0.000230573,0.000271634,0.000167403,0.000164244,0.000138976,7.58E-05,0.000186354,0.000157927,0.000154768,0.000164244,0.00017372,0.000186354,0.000195829,0.00017372,0.000154768,0.000132659,0.000101073,7.58E-05,4.74E-05,3.79E-05,3.47E-05,2.53E-05,1.58E-05,9.48E-06,3.16E-06,0,6.32E-06,2.53E-05,5.05E-05,5.37E-05,5.05E-05,0.000176878,2.53E-05,0.000186354,0.00010739,0.000154768,0.000183195,1.9E-05,0.000120025,0.000104232,3.16E-05,5.05E-05,0.000126342,0.000110549,0.000214781\nSRI-1053099-001.txt,OC(=O)C(Cc1ccccc1)NS(=O)(=O)c1ccc2OCCOc2c1,1,0.853712698,0.724013766,0.611566738,0.519025754,0.444754094,0.387690103,0.346506711,0.318417071,0.301165167,0.292804629,0.290637082,0.294175934,0.302315294,0.314037742,0.328458564,0.345356584,0.363935558,0.384062779,0.404986243,0.426352063,0.447187055,0.46687192,0.485672072,0.501818085,0.514911838,0.524201325,0.528846069,0.528801833,0.523728004,0.512509842,0.496385947,0.475051092,0.448792809,0.417336837,0.382107563,0.344060479,0.305456025,0.267466447,0.231591333,0.198693279,0.169665844,0.14573878,0.126721873,0.112314321,0.102272828,0.095115499,0.090630004,0.088869425,0.089130416,0.090957348,0.094177703,0.098433173,0.104152843,0.110854544,0.118684255,0.127173076,0.136205997,0.145844945,0.15605011,0.166631278,0.177128398,0.188089993,0.198392476,0.207770435,0.215825747,0.22193469,0.225933593,0.228079023,0.228844299,0.228640815,0.2274553,0.225040033,0.220169688,0.211848962,0.198609231,0.18002141,0.157470075,0.132317683,0.106975078,0.083512488,0.063230441,0.046819014,0.033809309,0.024205749,0.017030726,0.012014403,0.008418045,0.006011625,0.004529731,0.003087649,0.002198512,0.001636719,0.001344764,0.00101742,0.00075643,0.000858172,0.00095549,0.000796242,0.000875866,0.00107935,0.000995302,0.001243022,0.001358035,0.001371305,0.001243022,0.001229751,0.001353611,0.001154551,0.001128009,0.001393423,0.001304952,0.001229751,0.001486318,0.001729614,0.001822509,0.002132158,0.002242748,0.002309101,0.002437384,0.002618751,0.002450655,0.002083499,0.001782697,0.001517283,0.001291681,0.001150127,0.001234175,0.001185515,0.001061656,0.00120321,0.000995302,0.000880289,0.000880289,0.001229751,0.001207633,0.001282834,0.000995302,0.001167821,0.001012996,0.001220904,0.001313799,0.00127841,0.001685378,0.001468624,0.001411117,0.001362458,0.001313799,0.00127841,0.00127841,0.001291681,0.001309375,0.001322646,0.00132707,0.001335917,0.001335917,0.001322646,0.001304952,0.001282834,0.001256293,0.001220904,0.001185515,0.00114128,0.001119162,0.001110315,0.001052809,0.000937796,0.000765277,0.00083163,0.000884713,0.000743159,0.000809512,0.00083163,0.0007697,0.000243296,0.000455627,0.00044678,0,0.000190213,0.000119436,0.000106166\nSRI-1053287-001.txt,OC(=O)[C@H](Cc1ccccc1)NS(=O)(=O)c1ccccc1,1,0.959988692,0.91802031,0.873768674,0.829299585,0.784178137,0.736773436,0.689477461,0.639572053,0.589340466,0.539435058,0.490182008,0.441690043,0.395698784,0.350903516,0.310022398,0.272076891,0.237501903,0.206623611,0.179224563,0.154761128,0.134320569,0.116706895,0.101159023,0.088438037,0.078109031,0.069954552,0.063648422,0.058538283,0.055167765,0.052177789,0.051568922,0.051568922,0.05242786,0.053362907,0.053341162,0.054058756,0.055830996,0.059158023,0.062735121,0.06504012,0.06520321,0.063333116,0.062713376,0.064572597,0.068312784,0.071879009,0.071694174,0.066355709,0.058712245,0.051949464,0.048426729,0.048785526,0.050514276,0.050057625,0.043892839,0.034748951,0.024898341,0.017102659,0.011438015,0.008361059,0.006175658,0.004218584,0.004077239,0.003816296,0.003250919,0.003533607,0.003240046,0.003305282,0.003120447,0.003468371,0.003892404,0.00412073,0.004012003,0.004098984,0.004501272,0.004990541,0.004957923,0.005121012,0.005229739,0.00572988,0.005175376,0.005566791,0.006012569,0.006327875,0.006599691,0.006610564,0.006414856,0.006371366,0.006762781,0.006577946,0.006490965,0.006251767,0.006175658,0.006523583,0.005555918,0.005425446,0.005273229,0.005403701,0.004185966,0.004012003,0.004294692,0.004066367,0.00375106,0.002620306,0.002511579,0.001859221,0.001304717,0.001163372,0.000630613,0.000706721,0.000695849,0.000902429,0.00082632,0.00078283,0.000674104,0.000467523,0.000597995,0.000869811,0.000717594,0.000173962,0.001413443,0.001217735,0.000641486,0.001315589,0.00160915,0.001174245,0.001239481,0.001065519,0.000935047,0.001119882,0.001087264,0.001239481,0.001217735,0.000956792,0.000761085,0.001467806,0.000945919,0.001000283,0.000674104,0.000337052,0.000445778,0.000315306,0.000750212,0.000739339,0.000771957,0.000739339,0.00061974,0.000478396,0.000282689,0.000152217,0.000108726,5.44E-05,0,4.35E-05,0.000119599,0.000184835,0.000260943,0.000337052,0.000391415,0.000445778,0.000511014,0.000543632,0.000543632,0.000521887,0.000445778,0.000358797,0.000674104,0.000489269,0.00036967,0.00041316,0.00020658,0.000424033,0.000532759,0.000630613,0.000391415,0.00078283,8.7E-05,0.000152217,0.000173962,0.00061974\nSRI-1052851-001.txt,CCOC(=O)C1C(NC(=S)NC1(O)C(F)(F)F)c1cccc(Oc2ccccc2)c1,0.927330896,0.88071298,0.83820841,0.798903108,0.763254113,0.731718464,0.703839122,0.680073126,0.659506399,0.641681901,0.626142596,0.613665448,0.603519196,0.595612431,0.590859232,0.589213894,0.591590494,0.597806216,0.607815356,0.621480804,0.639031079,0.660146252,0.685191956,0.712934186,0.742641682,0.774085923,0.807129799,0.840585009,0.873765996,0.905393053,0.93404936,0.958775137,0.979204753,0.992783364,1,0.999017367,0.989981718,0.972563985,0.946435101,0.912166362,0.870872943,0.824113346,0.773523766,0.720324497,0.665726691,0.611503656,0.557248629,0.50499543,0.454666362,0.408126143,0.366732176,0.330086837,0.298231261,0.270127971,0.24547075,0.224296161,0.206243144,0.190987203,0.178510055,0.167394881,0.156823583,0.146608775,0.136649909,0.126622486,0.115854662,0.104031079,0.09154936,0.078825411,0.067641682,0.057815356,0.050580439,0.044835466,0.040297075,0.036946984,0.034428702,0.032417733,0.030347349,0.028948812,0.028021024,0.026878428,0.025658135,0.024707495,0.024200183,0.023624314,0.022957038,0.022102377,0.02143053,0.02095521,0.020260512,0.01976234,0.018907678,0.018126143,0.017627971,0.016563071,0.015850091,0.015169104,0.014227605,0.01356947,0.01285192,0.01214808,0.011553931,0.010626143,0.010041133,0.00940128,0.008734004,0.007943327,0.007001828,0.006284278,0.005333638,0.004675503,0.003893967,0.003231261,0.002691956,0.002189214,0.001805302,0.001453382,0.001202011,0.001037477,0.000781536,0.000420475,0.000292505,0.000425046,0.000466179,0.000393053,0.000297075,0.00023766,0.00035192,0.000278793,0.000379342,0.000457038,0.000580439,0.000397623,0.000406764,0.000379342,0.000292505,0.000210238,0.00036106,0.000393053,0.000310786,0.000310786,0.000297075,0.000132541,7.31E-05,0.000315356,0.000246801,0.000292505,0.000306216,0.000324497,0.00036106,0.000379342,0.000393053,0.000393053,0.000374771,0.00035192,0.000319927,0.000292505,0.000269653,0.00024223,0.000219378,0.000201097,0.000182815,0.000169104,0.000164534,0.000173675,0.000182815,0.000182815,0.00011883,6.86E-05,0.000251371,0.000223949,0.00023309,0,0,0,0.000228519,0.000342779,5.94E-05,0.000109689,0.000178245,2.74E-05,0\nSRI-1052929-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)CCCn1cnc2ccccc2c1=O,0.984575468,0.995170594,1,0.996131547,0.982160765,0.95569759,0.915682511,0.865565102,0.808597821,0.749043359,0.690154171,0.63476384,0.582256368,0.531769361,0.483647779,0.437595941,0.394673362,0.355200359,0.319891486,0.287835071,0.25947463,0.23379993,0.210121055,0.189004723,0.170795891,0.155617757,0.143987759,0.13531454,0.129405909,0.125815886,0.124251257,0.124352281,0.125931693,0.128770202,0.132680542,0.137428637,0.142755768,0.148398288,0.154154152,0.160025823,0.165922133,0.172498503,0.179656373,0.187368639,0.195669797,0.204037482,0.212025714,0.218754851,0.223842975,0.22714964,0.2289311,0.230187731,0.231343339,0.232673889,0.234070968,0.235123088,0.235490222,0.235164976,0.233469756,0.229931477,0.224192861,0.216628434,0.207893615,0.198794127,0.189216626,0.179225176,0.169455484,0.161129687,0.155455135,0.152552563,0.150995326,0.148568303,0.143214068,0.134691152,0.124278361,0.113882818,0.104413732,0.09675321,0.090923427,0.086584353,0.08364975,0.081592324,0.079663026,0.077558784,0.074422134,0.070610353,0.066106193,0.061636528,0.057637484,0.05453533,0.052453264,0.051462743,0.051270553,0.051790453,0.052140339,0.051856981,0.050073057,0.046207068,0.040530052,0.033556981,0.026433607,0.019960724,0.014542426,0.01049903,0.007537323,0.005272923,0.003863525,0.003050411,0.00255515,0.00203525,0.001754356,0.001468534,0.001091544,0.00121228,0.001098936,0.001010233,0.000857466,0.000707163,0.000662811,0.000726875,0.000628316,0.000702235,0.000692379,0.000505116,0.000586428,0.000615996,0.000549468,0.00054454,0.000421341,0.000445981,0.000458301,0.000394237,0.000312926,0.000248862,0.000453373,0.000342494,0.000497725,0.000320318,0.000275966,0.000369597,0.000239006,0.000125663,0.000271038,0.000317854,0.000246398,0.000273502,0.00026611,0.00024147,0.000204511,0.000145375,9.36E-05,5.91E-05,5.42E-05,5.17E-05,4.68E-05,5.67E-05,6.65E-05,8.13E-05,8.87E-05,9.86E-05,0.000101023,0.000103487,0.000103487,9.61E-05,0.000101023,0.000105951,7.88E-05,9.12E-05,8.62E-05,0.000152767,0.000135519,8.13E-05,9.12E-05,0,0.000115807,9.61E-05,9.12E-05,4.68E-05,5.17E-05,5.67E-05,4.93E-05\nSRI-1052939-001.txt,CCOC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)c1ccccc1Br,1,0.995680142,0.983505997,0.960728564,0.925384271,0.878258547,0.817387821,0.746699236,0.669334506,0.589613491,0.512248761,0.441835076,0.380100378,0.327515925,0.284003173,0.248266166,0.219440932,0.196074427,0.176949238,0.160847949,0.147495661,0.136106944,0.126485442,0.118081355,0.110973225,0.104925424,0.09989868,0.095421736,0.092083664,0.089334663,0.08733182,0.08595732,0.085065858,0.084963752,0.085548897,0.086471776,0.087944454,0.090175072,0.0926531,0.095610239,0.098810861,0.102302092,0.106080004,0.110176015,0.11427988,0.118658645,0.122860689,0.127098076,0.13127263,0.135176211,0.138832382,0.142366811,0.14562634,0.148524572,0.15070021,0.15229463,0.153233217,0.153963666,0.154910108,0.156280681,0.157827975,0.159013973,0.159497011,0.158739073,0.156194284,0.15144244,0.145312169,0.139217242,0.135258681,0.133931306,0.133652479,0.132065913,0.126045602,0.115399116,0.101807271,0.087803077,0.074980953,0.064145964,0.055199931,0.047848318,0.041211445,0.035729153,0.031252209,0.027281867,0.023916305,0.020947384,0.018736402,0.016619672,0.014828894,0.0132816,0.011887464,0.010870334,0.009959236,0.009020649,0.008286273,0.007799307,0.007233799,0.006735051,0.006271648,0.006024238,0.005835735,0.005478365,0.005411604,0.005117068,0.004516215,0.004575122,0.004504434,0.004221679,0.003946779,0.003919289,0.003770058,0.003424469,0.003357708,0.003361635,0.003051391,0.002686166,0.002721511,0.002639041,0.002415193,0.0021992,0.002010698,0.002030333,0.001782923,0.001331302,0.001409845,0.001150653,0.000895389,0.00098964,0.000616562,0.000596926,0.000616562,0.000451622,0.000325953,0.00043984,0.000424132,0.000600853,0.000545873,0.000722594,0.00046733,0.000671542,0.00071474,0.000624416,0.00049482,0.000612634,0.000730449,0.000644052,0.00063227,0.000675469,0.00071474,0.000738303,0.00074223,0.000746157,0.00074223,0.000730449,0.000710813,0.000695104,0.000683323,0.000671542,0.000663687,0.000655833,0.000647979,0.000647979,0.000655833,0.000675469,0.000706886,0.000679396,0.000624416,0.000655833,0.000616562,0.000710813,0.000585144,0.000294536,0.000530164,0.000608707,0.000514456,9.03E-05,0.000121741,0.000235629,0,0.000314171,0.000204211\nSRI-1052779-001.txt,CC(Oc1ccc2c3CCCCc3c(=O)oc2c1)C(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(O)=O,0.99219177,1,0.99219177,0.97657531,0.945342391,0.898493012,0.836027173,0.773561334,0.708753026,0.642383072,0.59475287,0.550245959,0.518232217,0.488560943,0.458108847,0.434684157,0.408136176,0.384711486,0.37534161,0.379245725,0.393300539,0.402670415,0.412821113,0.426095104,0.439369095,0.451862263,0.463574608,0.476067775,0.490122589,0.498399313,0.505895214,0.517763723,0.527055517,0.534785664,0.541422659,0.548215819,0.55196377,0.550402124,0.551885688,0.544858281,0.543999375,0.540173343,0.537987038,0.53634731,0.530959631,0.525650035,0.521667838,0.514718513,0.511985633,0.503708909,0.494339033,0.484344499,0.475130788,0.461310221,0.449988288,0.434371828,0.420941673,0.407823846,0.400171781,0.382681346,0.370656672,0.357851175,0.344264855,0.32607168,0.308893574,0.291559304,0.273990786,0.265089404,0.250253767,0.238697587,0.22112907,0.212930429,0.199812602,0.189115328,0.182868744,0.179511205,0.179979699,0.179979699,0.177793394,0.178261888,0.179120793,0.181853674,0.186616694,0.186382447,0.19223862,0.195596158,0.199656438,0.203872882,0.205746857,0.211134536,0.214023581,0.216990708,0.222690716,0.224564691,0.225111267,0.226048255,0.23471539,0.231514016,0.232138674,0.229327711,0.231123604,0.22995237,0.22589209,0.222534551,0.214960568,0.212696182,0.207230421,0.196923557,0.192550949,0.184586554,0.179276958,0.171156399,0.166159132,0.152494729,0.144920746,0.141485125,0.132115249,0.122354962,0.113609745,0.097915203,0.08628094,0.080737097,0.065354884,0.053564457,0.044897322,0.036308269,0.031857578,0.020301398,0.01834934,0.011868509,0.012024674,0.011243851,0.007964394,0.005153432,0.006715078,0.004841103,0.005309596,0.00780823,0.006168502,0.00203014,0.002186304,0.002967127,0.001405481,0,0.003201374,0.00374795,0.00374795,0.004372609,0.004606856,0.004294526,0.00374795,0.003201374,0.002810963,0.00273288,0.00273288,0.002810963,0.00273288,0.002654798,0.002498634,0.002498634,0.002420551,0.002342469,0.002186304,0.002342469,0.00273288,0.002654798,0.001639728,0.003591786,0.004372609,0.004138362,0.001093152,0.005543843,0.002420551,0.003826033,0.001171234,0.003435621,0.002967127,0.002420551,0.001483564,0.003201374,0.005934255\nSRI-1053273-001.txt,COc1cc(cc(OC)c1OC)C(=O)NC(C(C)C)C(O)=O,1,0.914687783,0.82974132,0.746120717,0.667072044,0.593601127,0.525799402,0.465998555,0.413649955,0.368616442,0.330852299,0.30067756,0.276172014,0.257335662,0.242888363,0.232647239,0.225835063,0.222223238,0.221263133,0.222817589,0.226795168,0.232510081,0.23977945,0.248374679,0.257884294,0.268491172,0.279692401,0.291254812,0.303114399,0.314731673,0.326307801,0.337778773,0.348344504,0.358503333,0.368054095,0.376708759,0.384325595,0.390657718,0.39549482,0.399124933,0.401090863,0.40136975,0.399957024,0.396848111,0.392417911,0.386268665,0.37844152,0.369242797,0.358965098,0.347452978,0.33514077,0.322298218,0.308929894,0.295278111,0.281493741,0.267544782,0.253787844,0.240332654,0.227686695,0.215379059,0.203880654,0.193470369,0.183558425,0.174775747,0.166477694,0.159167177,0.152725328,0.146164608,0.140481699,0.135361137,0.129911396,0.124991999,0.119917157,0.114641149,0.109625742,0.104486892,0.098945713,0.093390818,0.087913645,0.08250048,0.076845002,0.071134662,0.06563463,0.060239752,0.054726004,0.049454569,0.044548888,0.039474045,0.034851824,0.030572497,0.026462332,0.022736209,0.019558717,0.016943573,0.014456443,0.012513373,0.010830903,0.009345025,0.007978018,0.006693306,0.005678337,0.004622221,0.003780986,0.003154632,0.002528277,0.002066512,0.001632179,0.001115551,0.00094639,0.000905242,0.000571491,0.000841235,0.00090067,0.000635498,0.000475481,0.000539488,0.000507484,0.000201165,0.000630926,0.000278888,0.000320035,0.00064007,0.000553204,0.000466337,0.000617211,0.000566919,0.000397758,0.000763512,0.000708649,0.000406902,0.000457193,0.000635498,0.000480053,0.000466337,0.000576063,0.000493768,0.000676646,0.000534916,0.000594351,0.000512056,0.000512056,0.000484625,0.000192021,0.00037947,0.000461765,0.00042519,0.000384042,0.000310891,0.000210309,9.6E-05,3.66E-05,2.29E-05,4.57E-06,0,3.66E-05,7.77E-05,0.000123442,0.000155446,0.000173733,0.000196593,0.000214881,0.000233168,0.000228597,0.000205737,0.000178305,0.000228597,0.000384042,0.000347467,0.000242312,0.00028346,0.000228597,0.000201165,0.000178305,0.000169161,0.000576063,0.000411474,0.000393186,0.000214881,0.000182877,0.000315463,0.000393186\nSRI-003992.txt,OC1=C(C=C(Cl)C=C1)C(=O)NC1=CC=C(C=C1Cl)[N+]([O-])=O,0.495994625,0.507388078,0.518118392,0.525474705,0.532444623,0.540692954,0.548007495,0.554129778,0.559631566,0.564313569,0.568126181,0.570804843,0.571964901,0.571348756,0.568693591,0.564126463,0.557848402,0.550310204,0.541727694,0.534925736,0.527867052,0.518167127,0.508204382,0.497826524,0.486885607,0.475168417,0.462333813,0.44823559,0.432663146,0.415631274,0.397146067,0.377522559,0.357154108,0.341729608,0.326389523,0.306628514,0.288098054,0.271302893,0.256509332,0.243838337,0.233352566,0.224931924,0.218384083,0.21356632,0.210288918,0.208430911,0.207929641,0.208334312,0.209509164,0.212115595,0.215922115,0.220947871,0.227172845,0.234497829,0.242896715,0.252144105,0.262297436,0.273088668,0.28457959,0.296527399,0.305793064,0.315333732,0.328301486,0.341522486,0.354991511,0.368652863,0.382382965,0.396313228,0.410303538,0.424469641,0.438765413,0.453218703,0.467875633,0.475246741,0.490224797,0.505352538,0.52061604,0.536069259,0.551590358,0.567212407,0.582932796,0.598810702,0.614698181,0.630801484,0.646803837,0.654932072,0.671253811,0.687489394,0.703909472,0.720092839,0.736310147,0.752407359,0.768085105,0.783613166,0.798796604,0.81357537,0.824437094,0.834996837,0.848883586,0.862626743,0.875881683,0.88879113,0.901473438,0.913845064,0.925907747,0.937605791,0.948684209,0.956812444,0.964817972,0.972918358,0.978510653,0.987082721,0.994895921,0.99816288,0.999762419,1,0.997903542,0.993629692,0.988756232,0.982726196,0.972479747,0.959815714,0.945175318,0.927644787,0.908738374,0.887262952,0.863994792,0.838738957,0.812126386,0.791504689,0.76963852,0.739940874,0.709242429,0.678373413,0.647169347,0.61603142,0.585034475,0.55446918,0.524408636,0.494793666,0.480294253,0.451626996,0.423791708,0.396638705,0.370389033,0.345115793,0.321020885,0.297951145,0.275868281,0.254961139,0.239766387,0.225211278,0.206460641,0.188671643,0.171965249,0.156280541,0.141726301,0.128370411,0.115944829,0.104501771,0.096479709,0.088885814,0.079375605,0.070558124,0.062293259,0.054647148,0.047890445,0.041722037,0.036005295,0.030865535,0.026202678,0.02403921,0.020187437,0.016476645,0.013308896,0.01034827,0.007787963,0.005645381,0.003380092,0.00163522,0\nSRI-1053263-001.txt,OC(=O)C1CCCN(C1)C(=O)Cn1ncc2ccccc2c1=O,1,0.96380312,0.935635485,0.91363666,0.896109407,0.880409948,0.86350284,0.846138782,0.827044846,0.80755924,0.787518768,0.764769241,0.735361316,0.69449703,0.641490959,0.579607024,0.515960572,0.456753052,0.407141458,0.367256348,0.338338012,0.317971147,0.303218226,0.292577845,0.283132058,0.273833148,0.264847575,0.257441739,0.252506691,0.250652784,0.25122397,0.253064821,0.254174554,0.252000783,0.245078008,0.23312553,0.217925452,0.203139892,0.191262484,0.18290032,0.178585417,0.177524643,0.178611528,0.181692669,0.18562243,0.190488935,0.19631177,0.202826555,0.209772178,0.217602324,0.225605457,0.233846857,0.241801031,0.249392911,0.256172074,0.262164632,0.267158431,0.271408055,0.275256218,0.278999935,0.282149618,0.284901103,0.286800705,0.28766238,0.287577518,0.285886807,0.283017821,0.278680071,0.273320713,0.267168222,0.260111626,0.252467524,0.244245708,0.235759514,0.227720478,0.220200405,0.213816176,0.208871336,0.205829362,0.204223513,0.203139892,0.201289249,0.197698936,0.192068673,0.184055748,0.174681768,0.164814936,0.155930544,0.148769502,0.14381487,0.141353874,0.140932829,0.141001371,0.139842679,0.135358052,0.126016711,0.112304981,0.095401136,0.077485476,0.060483713,0.04564593,0.033644494,0.024153013,0.017151903,0.012389843,0.009011685,0.006625759,0.004987271,0.003805731,0.003224754,0.002604609,0.002163979,0.001795156,0.001436125,0.001439389,0.001175011,0.000966121,0.000988968,0.000877995,0.000678895,0.000678895,0.000708271,0.000845355,0.000753966,0.000806188,0.000714799,0.000538547,0.000646256,0.000626673,0.000518963,0.000551603,0.00057445,0.000460213,0.00057445,0.000378615,0.000502644,0.000496116,0.000352503,0.000362295,0.00033292,0.000329656,0.00034924,0.000244794,0.000326392,0.000290489,0.000297017,0.000283961,0.000225211,0.000140349,7.83E-05,6.2E-05,4.9E-05,4.9E-05,4.9E-05,6.2E-05,7.51E-05,0.000101182,0.000127293,0.00015014,0.000163196,0.000176252,0.000186043,0.000189307,0.000179516,0.000163196,0.000153404,0.000215419,0.000342712,0.000172988,0.000124029,0.000156668,4.9E-05,0.000107709,0.000186043,0.000199099,0.000130557,0.000277433,0.000208891,0.000212155,0,0.000205627\nSRI-1053105-001.txt,OC(=O)C(Cc1ccccc1)NS(=O)(=O)c1ccc2[nH]c(=O)oc2c1,0.49997703,0.447211776,0.405537727,0.374757995,0.353100615,0.340499957,0.334330885,0.336496623,0.344240778,0.357825862,0.376858105,0.400156196,0.428245162,0.460534347,0.495973696,0.534956981,0.576368517,0.619486392,0.664376235,0.710381761,0.755599745,0.800292703,0.842098009,0.882000092,0.917111299,0.948087916,0.972567318,0.989906348,0.999009011,1,0.991501119,0.973991455,0.947247872,0.911893839,0.867181194,0.81605665,0.758467708,0.699572759,0.640126532,0.582091315,0.528367887,0.480262251,0.43918542,0.406732164,0.382508712,0.365780027,0.355345107,0.350252341,0.349897948,0.353704396,0.360470687,0.369684918,0.381360215,0.395234064,0.411030826,0.427857954,0.444573514,0.460193079,0.473502523,0.482224541,0.485473148,0.482703629,0.475937338,0.467812539,0.461413768,0.454969056,0.442814672,0.419103122,0.379581684,0.326567043,0.26706175,0.208455566,0.156431914,0.114285339,0.081956777,0.058619309,0.041654361,0.029191523,0.021184856,0.015337363,0.011478412,0.00847263,0.006562842,0.005256837,0.004154279,0.003583312,0.002894214,0.00258576,0.002113235,0.002067295,0.001594771,0.001522579,0.001141935,0.001227252,0.001102558,0.000912235,0.001050055,0.000905672,0.000741601,0.000800667,0.000675973,0.00085317,0.000774415,0.000643159,0.00071535,0.00071535,0.000584093,0.000223137,0.000367519,0.000472525,0.00048565,0.000616907,0.000905672,0.000682536,0.000603782,0.000387208,0.00043971,0.00013782,0.000275639,0.000308454,0.000603782,0.000630033,0.000177197,0.000393771,0.000288765,0.000295328,0.000446273,0.000269077,0.000308454,0.000354393,0.000341268,0.000400333,0.000341268,0.000157508,0.000295328,0.000328142,0.000610344,0.000374082,0.000203448,0.000157508,0.000367519,0.000387208,0.000459399,0.000341268,0.000406896,0.000308454,0.000223137,0.00013782,7.88E-05,4.59E-05,1.31E-05,6.56E-06,0,1.97E-05,3.94E-05,5.91E-05,6.56E-05,9.19E-05,9.84E-05,0.000105005,0.000118131,0.000131257,0.000150945,0.000177197,0.000196885,0.000203448,0.000315016,0.000459399,0.000347831,0.000269077,0.00013782,0.000367519,0.000315016,0.000334705,0.000210011,9.84E-05,0.000328142,0.000164071,0.000131257,0.000249388,1.31E-05\nSRI-1052964-001.txt,O=C(C[C@@H]1NC(=O)N(CCc2c[nH]c3ccccc23)C1=O)NCCc1ccccn1,1,0.996180908,0.981551846,0.956145177,0.918407374,0.866105239,0.800468648,0.724119182,0.641199583,0.557050108,0.476978645,0.4060018,0.345543638,0.29641329,0.257672167,0.228414041,0.206535178,0.190708603,0.179348424,0.17145132,0.166369986,0.163295293,0.162123674,0.162266081,0.163635128,0.166104591,0.169447915,0.173561529,0.178031161,0.182504029,0.186805362,0.191375326,0.196123298,0.200829196,0.204816587,0.207205137,0.207447876,0.205842563,0.203693515,0.201505628,0.199702888,0.197663881,0.193543793,0.186332831,0.176403193,0.165395794,0.15530433,0.147446063,0.142008713,0.138921074,0.137730036,0.137859496,0.138403231,0.139484228,0.14068174,0.141471451,0.14215112,0.142846971,0.143995935,0.145297015,0.14679876,0.148038346,0.148442911,0.147782661,0.145546227,0.141898671,0.136946798,0.131981979,0.128787536,0.127010687,0.125861723,0.123007114,0.116935406,0.107342365,0.095334883,0.083000511,0.071504398,0.061170196,0.052321555,0.044602458,0.037931994,0.032268087,0.0271997,0.022914549,0.018988653,0.015946326,0.013188812,0.010894121,0.009149637,0.007592872,0.006168804,0.005191375,0.00429486,0.003466311,0.002961414,0.002628053,0.002336766,0.001990459,0.001841579,0.001637678,0.00144996,0.00131079,0.001139254,0.001203985,0.001048632,0.000776764,0.000786474,0.000912698,0.001009794,0.000896516,0.000702324,0.000637594,0.000699088,0.000828549,0.000689378,0.000805893,0.000721744,0.000589046,0.000559918,0.000530789,0.000534026,0.000504897,0.000757345,0.000640831,0.000702324,0.000563154,0.000537262,0.000760582,0.000440166,0.000566391,0.000407801,0.000453113,0.000475768,0.000284814,0.000559918,0.000453113,0.000469295,0.000343071,0.000281577,0.00029776,0.000106805,0.000343071,0.000375436,0.000291287,0.000343071,0.000343071,0.000339834,0.000333361,0.000300996,0.000233029,0.000174772,0.000135934,0.000110042,0.000103569,0.000113278,0.000126224,0.000135934,0.00014888,0.000155353,0.000165062,0.000168299,0.000168299,0.000165062,0.000158589,0.000155353,0.000132697,5.5E-05,1.62E-05,0,0.000210374,0.000129461,0.000152116,0.00014888,3.24E-05,0.000278341,0.000313942,0.000161826,0.000119751,8.41E-05,0.000113278,0.000174772\nSRI-1052916-001.txt,COC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)COc1ccc(Cl)cc1Cl,1,0.999805235,0.98928794,0.969032409,0.937870053,0.893268931,0.837760985,0.773488626,0.704347149,0.633258024,0.565674665,0.503934247,0.448621066,0.399209255,0.354705516,0.313395918,0.274813026,0.238976317,0.206022125,0.176632128,0.151702244,0.130765036,0.113859458,0.100381739,0.090039732,0.082288096,0.076776254,0.072978342,0.070602213,0.069550483,0.069569959,0.070543783,0.072183702,0.074448816,0.077374182,0.080920848,0.0848512,0.089151605,0.093831801,0.098714553,0.104051106,0.109516204,0.115168277,0.120944998,0.12695349,0.132973668,0.139153553,0.145226317,0.151100421,0.156844032,0.162332502,0.167669056,0.172795263,0.177654643,0.181871299,0.185147242,0.187755142,0.189979355,0.192729433,0.196054067,0.199750701,0.203122079,0.205416407,0.206078607,0.203846603,0.198455516,0.190594811,0.18240885,0.176824945,0.174557884,0.174107978,0.171704581,0.163245949,0.147945232,0.128026644,0.106933624,0.086960502,0.069494001,0.054995715,0.043315675,0.033881271,0.026441259,0.0207366,0.016081723,0.012638283,0.009899891,0.007786694,0.006148722,0.004943129,0.003961514,0.003180508,0.002631271,0.002270957,0.001947647,0.001696401,0.001513322,0.001328295,0.001203646,0.001090682,0.00102641,0.000872546,0.000806326,0.000706996,0.000685572,0.000613509,0.000650514,0.000520022,0.000498598,0.000401215,0.000506388,0.000471331,0.000366158,0.000379791,0.000352524,0.000292147,0.000278514,0.000286304,0.000309676,0.000159707,0.000186974,0.00023177,0.000329152,0.000385634,0.000183079,0.000167498,0.000190869,0.000155812,0.000200608,0.000144126,0.000177236,0.000153864,0.000161655,0.000130492,4.09E-05,0.000128545,0.000140231,0.000175288,3.9E-05,8.96E-05,0.000148021,0.00013244,0.000188922,8.96E-05,4.28E-05,9.35E-05,0.000114911,9.93E-05,7.4E-05,5.26E-05,2.53E-05,1.36E-05,1.17E-05,5.84E-06,0,3.9E-06,1.56E-05,2.53E-05,3.31E-05,3.7E-05,4.28E-05,4.87E-05,4.87E-05,4.87E-05,4.48E-05,4.67E-05,4.28E-05,5.65E-05,3.7E-05,7.99E-05,8.57E-05,6.04E-05,4.48E-05,0.000114911,0.000107121,0.000101278,4.67E-05,3.51E-05,9.74E-05,6.04E-05,8.18E-05,0.000124649\nSRI-1052906-001.txt,Cc1nc(sc1C(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(O)=O)-c1ccc(F)cc1,1,0.999080914,0.988970968,0.965993819,0.930838781,0.883505853,0.822846179,0.753455189,0.678411819,0.602012798,0.52938203,0.464149903,0.40702871,0.358363108,0.31813012,0.284767299,0.257424491,0.235067725,0.217007686,0.201635973,0.189504038,0.179669818,0.172064382,0.166067346,0.161770619,0.158714658,0.156830532,0.155865492,0.155819537,0.156462898,0.157724343,0.159645233,0.162133658,0.16503797,0.16840642,0.172163184,0.176294475,0.180650943,0.185303815,0.19016578,0.195402272,0.200875429,0.206975863,0.213602472,0.220810404,0.228507749,0.236575026,0.245343106,0.254297301,0.263933918,0.273671634,0.283839022,0.294351068,0.304959618,0.315800237,0.326360534,0.337129924,0.348170444,0.359955424,0.372372276,0.38543019,0.398343348,0.410833726,0.422349873,0.432246131,0.440205416,0.446838919,0.453401193,0.461631607,0.472060935,0.483668991,0.493806509,0.500139012,0.501951909,0.501205151,0.499580667,0.498146893,0.497705732,0.498190549,0.499383064,0.501012143,0.503155911,0.505625955,0.507992601,0.510352355,0.512500718,0.51436876,0.51572671,0.516436704,0.516250589,0.515067266,0.512206611,0.507870822,0.501595763,0.493425089,0.48374022,0.472607792,0.459942787,0.445804947,0.430667601,0.415199384,0.399188907,0.382666039,0.36672679,0.350171754,0.333090541,0.315692244,0.297232402,0.277949979,0.257909309,0.236981722,0.215399285,0.193596269,0.171963283,0.150610618,0.130064451,0.110908402,0.093195317,0.077731696,0.064140712,0.052691199,0.043164873,0.035311283,0.028907551,0.02392151,0.019916593,0.016550441,0.013802374,0.01167469,0.010027228,0.008536011,0.007433108,0.006562274,0.005760371,0.00491711,0.00417265,0.003883138,0.003350068,0.002931884,0.002713601,0.002304608,0.002051859,0.001677332,0.001642866,0.001505003,0.001332675,0.001252255,0.001240766,0.001213193,0.001082224,0.000909895,0.000755948,0.000641062,0.000558345,0.000505497,0.000466436,0.00043197,0.0004021,0.00037223,0.000346955,0.000319382,0.000289512,0.000266535,0.000252749,0.000232069,0.000206794,0.000174626,0.000193008,0.000222878,0.000229771,0.000147054,0.000126374,4.83E-05,0.000151649,0,0.00011029,0.000133267,7.81E-05,8.5E-05,5.74E-05,5.28E-05\nSRI-0000638.txt,CCCCCC(C)NCCC(O)C1=CC2=C(C=C(C=C2)C(F)(F)F)C2=CC(=CC=C12)C(F)(F)F,0.385189112,0.395906108,0.408650643,0.420236585,0.42718815,0.424870962,0.410967832,0.388664894,0.36172758,0.337397102,0.320597487,0.314514868,0.319033385,0.333573742,0.356050468,0.384667744,0.417050451,0.452764116,0.490418426,0.531171976,0.575024765,0.62261402,0.673070796,0.723788255,0.769697549,0.807438754,0.834607787,0.854303888,0.87179866,0.893174722,0.922313365,0.95605742,0.986093974,1,0.984318428,0.93214114,0.848461677,0.749931933,0.651350052,0.565993523,0.499252707,0.450157279,0.414675333,0.38686328,0.361820267,0.336617948,0.310572751,0.285518152,0.263803201,0.24646484,0.233181557,0.223020687,0.214360195,0.205945905,0.197627199,0.190009443,0.184230954,0.180662484,0.178953558,0.177580624,0.174889789,0.170518992,0.165047531,0.159338559,0.155434096,0.154443498,0.157212538,0.163741216,0.172280055,0.180752275,0.186606072,0.187671979,0.184106405,0.177288079,0.169925213,0.164395822,0.162695585,0.166055508,0.174133806,0.185580716,0.197592441,0.206762714,0.209682371,0.204520834,0.190664048,0.170258309,0.145727974,0.120569101,0.096849782,0.076012466,0.058963753,0.045637024,0.035560151,0.028316041,0.023310915,0.019855407,0.017752559,0.016095769,0.01490821,0.01389444,0.012622883,0.011583045,0.010265144,0.009144204,0.008541735,0.00798561,0.00740921,0.00698053,0.006789362,0.006525782,0.006769086,0.006992116,0.007122458,0.007055838,0.006760397,0.006155031,0.005578631,0.004889267,0.004205697,0.00372488,0.003548195,0.003281718,0.002951519,0.002806694,0.00271111,0.002351946,0.002308499,0.002192639,0.002259259,0.002050712,0.00207678,0.001897198,0.001711823,0.001245489,0.000952944,0.000805223,0.000628537,0.000538746,0.00041999,0.000217236,0.000257787,0.000295442,0.000301234,0.000295442,0.000231719,0.000315717,0.000341785,0.000333096,0.000309924,0.000266477,0.00021434,0.000182479,0.000144824,0.000115859,9.85E-05,8.69E-05,8.11E-05,7.53E-05,6.95E-05,6.08E-05,6.37E-05,6.37E-05,6.95E-05,7.82E-05,8.98E-05,9.85E-05,0.000121652,0.000176686,0.000139031,4.92E-05,0.000104273,6.95E-05,7.82E-05,0,2.9E-06,0.000130342,0.00020565,0.000136135,7.53E-05,0.000130342,0.00010717\nSRI-1053177-001.txt,Cn1nc2CSCc2c1NC(=O)Cn1nnc2ccccc2c1=O,0.948101168,0.962203831,0.976435404,0.988552866,0.996261634,1,0.998865599,0.992471704,0.981952716,0.968185217,0.952277825,0.933534432,0.91102689,0.883388764,0.84930518,0.810529301,0.770129167,0.731585325,0.69721814,0.668780777,0.647020909,0.631886972,0.62201253,0.616701472,0.614690489,0.614999871,0.615721762,0.616907727,0.617449145,0.617603836,0.617472349,0.616992807,0.616044035,0.614365638,0.612022069,0.608848325,0.60410189,0.598563952,0.592159744,0.585435842,0.578443808,0.571673499,0.565405935,0.559061026,0.553064171,0.547392167,0.542122361,0.536594735,0.531201176,0.525789569,0.520390853,0.514437827,0.508389409,0.501588161,0.494771444,0.487949571,0.480872457,0.474122773,0.466852296,0.459860262,0.452159229,0.443602238,0.434617269,0.424642277,0.41375203,0.402438962,0.39069018,0.378624281,0.367061129,0.355611416,0.34405342,0.332258231,0.320811097,0.309784206,0.299015134,0.28948359,0.280722923,0.273259082,0.267141052,0.262002733,0.257114497,0.251643592,0.245095006,0.23702787,0.227630392,0.217072731,0.206241782,0.195789826,0.186423286,0.178861474,0.17348854,0.170289014,0.168922577,0.168120762,0.166132983,0.161778431,0.153786062,0.142199706,0.127712893,0.111810658,0.095867172,0.080676515,0.066958001,0.055204063,0.045229072,0.036989197,0.030322015,0.024959394,0.020478511,0.017049527,0.014143914,0.011738469,0.009856395,0.008208936,0.006914688,0.005824116,0.004885658,0.004148297,0.00349086,0.002841158,0.002389976,0.002049656,0.001644881,0.001554645,0.001289092,0.001162761,0.000938459,0.000822441,0.000845644,0.000592982,0.000500168,0.000464073,0.000549153,0.000327429,0.000304226,0.000399618,0.000479542,0.000260397,0.000273287,0.000273287,0.000257818,0.00022688,0.000309382,0.000229458,0.000247506,0.000252662,0.000268131,0.000250084,0.000203676,0.000157269,0.000131487,0.000108284,8.51E-05,7.22E-05,6.7E-05,6.45E-05,6.45E-05,6.7E-05,6.96E-05,7.22E-05,7.48E-05,7.73E-05,7.22E-05,6.45E-05,4.13E-05,6.19E-05,0.000159847,0.000244927,8.77E-05,3.35E-05,0,6.19E-05,4.64E-05,0.000139222,0.000216567,8.77E-05,9.8E-05,0.000100549,0.000175316,0.000237193,0.00017016\nSRI-1053167-001.txt,CC(C)[C@H](NC(=O)CCc1ccc2n(C)c(=O)c(C)nc2c1)C(O)=O,0.979499795,1,0.979499795,0.938499385,0.91799918,0.87699877,0.79499795,0.75399754,0.733497335,0.706847068,0.686346863,0.657646576,0.626896269,0.610496105,0.583845838,0.55104551,0.516195162,0.485444854,0.460844608,0.434194342,0.415744157,0.397293973,0.378843788,0.366543665,0.362443624,0.350143501,0.335793358,0.327593276,0.315293153,0.298892989,0.286797868,0.267527675,0.256252563,0.260557606,0.239442394,0.226117261,0.212382124,0.203567036,0.185526855,0.158466585,0.154776548,0.140426404,0.130381304,0.118901189,0.113161132,0.109061091,0.113366134,0.116236162,0.121771218,0.128741287,0.126486265,0.129356294,0.135096351,0.137351374,0.147601476,0.162771628,0.165436654,0.178556786,0.181631816,0.183886839,0.186756868,0.191881919,0.199876999,0.195776958,0.210332103,0.221812218,0.23698237,0.228167282,0.225092251,0.238622386,0.236572366,0.24600246,0.247232472,0.234932349,0.23800738,0.242517425,0.241492415,0.241697417,0.240877409,0.240877409,0.231652317,0.227552276,0.223247232,0.215662157,0.205207052,0.195776958,0.184911849,0.173841738,0.164821648,0.153546535,0.131406314,0.127306273,0.121361214,0.109266093,0.114596146,0.111931119,0.103526035,0.086920869,0.081590816,0.066625666,0.05801558,0.05104551,0.039770398,0.034850349,0.030750308,0.019475195,0.004715047,0.011685117,0.012505125,0.013735137,0.00697007,0.008610086,0.012710127,0.017220172,0.019065191,0.022755228,0.012710127,0.010660107,0.013325133,0.010660107,0.003895039,0,0.003690037,0.008405084,0.01701517,0.013735137,0.003075031,0.000820008,0.012095121,0.009840098,0.006765068,0.001435014,0.010865109,0.007380074,0.010455105,0.012095121,0.013530135,0.00102501,0.005535055,0.012505125,0.009430094,0.00697007,0.010455105,0.009635096,0.014145141,0.012915129,0.011685117,0.010455105,0.007380074,0.005740057,0.004715047,0.004100041,0.003280033,0.003280033,0.003485035,0.003485035,0.003485035,0.003895039,0.004715047,0.005330053,0.005945059,0.006560066,0.007380074,0.009840098,0.014145141,0.018450185,0.020705207,0.017220172,0.009430094,0.010865109,0.016400164,0.010455105,0.000410004,0.012915129,0.008610086,0.011480115,0.0100451,0.008405084,0.012095121,0.01599016,0.016400164\nSRI-0000374.txt,CSC1=NN=C(S1)C1=CC=C(C)C=C1,0.491232358,0.4627197,0.438280279,0.41180424,0.387364819,0.364962017,0.34866907,0.328302886,0.307936702,0.289607136,0.267204334,0.24683815,0.226471966,0.212826623,0.202236207,0.194700719,0.190016497,0.186961569,0.187165231,0.187979878,0.19042382,0.19368241,0.197551985,0.201625221,0.205698458,0.210179019,0.215677888,0.220362111,0.224639009,0.229730555,0.234414778,0.238284353,0.242968575,0.246491925,0.2503615,0.252459217,0.255819637,0.258059917,0.260850085,0.26274414,0.264841857,0.26738763,0.271236838,0.274475062,0.278039144,0.28313069,0.29027922,0.298384962,0.307712674,0.31840492,0.33121525,0.346021466,0.361214639,0.379360909,0.397486813,0.417466039,0.438748702,0.460581251,0.483737602,0.507810432,0.531883261,0.557015132,0.582533961,0.609234028,0.634162237,0.660006925,0.685790513,0.71222582,0.738213071,0.764200322,0.788660109,0.813832712,0.83711126,0.858984542,0.879982078,0.899900206,0.918413067,0.934319057,0.948921611,0.960815462,0.973014806,0.982872039,0.990937048,0.996415552,1,0.999103888,0.996293355,0.991079611,0.982668377,0.972077962,0.96018411,0.944828008,0.92800554,0.909451946,0.888556241,0.866968086,0.841775117,0.81336429,0.784098084,0.753222949,0.719333618,0.683081811,0.647074398,0.61141321,0.576057514,0.540905481,0.506690291,0.474206228,0.441742531,0.411356184,0.379422008,0.349157858,0.318608582,0.287509419,0.257550763,0.228121627,0.201360461,0.173723549,0.147695566,0.126392538,0.106494776,0.087880084,0.071016884,0.058634244,0.047697603,0.03853282,0.031262092,0.024989308,0.020753141,0.017148327,0.013869371,0.012280809,0.009429543,0.007148531,0.006232052,0.005600701,0.004500927,0.003075294,0.002708702,0.00224028,0.001221971,0.000651718,0.001832957,0.001670027,0.000896112,0.000916478,0.001160872,0.001425633,0.001486731,0.001323802,0.001140506,0.001018309,0.000875746,0.000773915,0.00069245,0.000631352,0.000631352,0.000631352,0.000631352,0.000610986,0.000610986,0.000610986,0.000610986,0.000610986,0.000509155,0.000162929,0,0.000448056,0.001364534,0.000488788,0.000651718,0.000631352,6.11E-05,0.000162929,0.000203662,0.000386957,0.000325859,4.07E-05,0.000203662,0.000631352,0.001771858\nSRI-1053211-001.txt,CC(C)[C@H](NC(=O)N1[C@@H](C(C)C)C(=O)Nc2ccccc12)C(O)=O,0.677926046,0.674202096,0.676636986,0.686806235,0.703993698,0.727387744,0.756176744,0.788069036,0.822062018,0.856771144,0.890716383,0.921749302,0.948962784,0.971927144,0.988828149,0.99871094,1,0.992170156,0.974982693,0.948294383,0.912964599,0.870759829,0.82225299,0.768685398,0.7124442,0.654150056,0.596237855,0.539309159,0.486796687,0.439383161,0.399150175,0.366599031,0.342316965,0.32534912,0.314960254,0.309512783,0.307641259,0.308648636,0.311293595,0.31518942,0.319462414,0.323463274,0.32748323,0.330925497,0.333570457,0.335279654,0.335675921,0.335088683,0.333360388,0.330132964,0.326108233,0.321061803,0.314936383,0.307483708,0.299281469,0.29080232,0.281315796,0.271218161,0.26100117,0.250435654,0.239717362,0.229252107,0.218910983,0.20850302,0.198706166,0.189109833,0.179685374,0.170728796,0.161944093,0.153374233,0.145410709,0.137012723,0.128662481,0.120975866,0.113298799,0.105454632,0.097557948,0.089537132,0.081392184,0.073084911,0.064706023,0.056460815,0.048492516,0.040996873,0.033983433,0.027733881,0.022477382,0.017979996,0.014332434,0.011338951,0.008818123,0.006994342,0.005566828,0.004459192,0.003451815,0.002797737,0.002310759,0.002009978,0.001895395,0.001508677,0.00145616,0.001217445,0.001236542,0.001050345,0.000935762,0.001031248,0.00074479,0.000682724,0.000816404,0.000582464,0.00054427,0.000572915,0.00064453,0.000673176,0.000606335,0.000668401,0.000668401,0.000897567,0.000639756,0.000630207,0.000587238,0.00057769,0.000582464,0.000458332,0.00057769,0.000539495,0.000854599,0.000568141,0.000405815,0.000553818,0.000606335,0.00061111,0.000782984,0.000634981,0.000286458,0.000687499,0.000868922,0.000401041,0.000324652,0.000491752,0.000401041,0.000424912,0.000319878,0.000448784,0.00047743,0.000429687,0.000420138,0.000381944,0.000338975,0.000315103,0.000262586,0.000224392,0.000195746,0.000176649,0.000162326,0.000152777,0.000157552,0.000162326,0.000162326,0.000162326,0.000162326,0.000171875,0.0001671,0.000157552,0.000138455,0.000157552,0.000243489,0.000338975,0.000319878,0.000348524,0.000224392,0.000401041,0.000272135,0.000415364,0.000420138,0,0.000128906,0.000176649,0.000319878,0.000358072,0.000238715\nSRI-1053201-001.txt,CC(NS(=O)(=O)c1ccc(Oc2ccccc2C)cc1)C(O)=O,0.58447321,0.56695803,0.554447188,0.547774738,0.546940682,0.551110963,0.560285581,0.575298592,0.596984053,0.622839794,0.653699873,0.685894442,0.720507773,0.757706679,0.794822179,0.83135384,0.866968039,0.900330286,0.930022686,0.956462267,0.976896644,0.992076466,1,0.999916594,0.992243278,0.976145993,0.95145793,0.919346767,0.878644826,0.832187896,0.780818376,0.727013412,0.672449456,0.619553613,0.569109895,0.522577901,0.480041036,0.442066458,0.407469807,0.375975846,0.348460332,0.324097551,0.30270401,0.283754254,0.266405885,0.24969974,0.233986121,0.218923067,0.20561153,0.19403483,0.184726763,0.176135985,0.166677787,0.155826716,0.143290852,0.130521452,0.117710349,0.10630046,0.096692133,0.089277374,0.083205445,0.076950023,0.069910589,0.061419897,0.052870821,0.044496897,0.037749383,0.032044439,0.027323681,0.023995796,0.021401882,0.019541936,0.017340028,0.016247414,0.015038033,0.014504237,0.014195636,0.013436645,0.012552546,0.012243945,0.011927003,0.011226396,0.011126309,0.010675919,0.010108761,0.00995029,0.009099553,0.008332221,0.008115367,0.007506506,0.006755855,0.006347168,0.005888437,0.005504771,0.005479749,0.005146127,0.004979315,0.004270368,0.003911723,0.003611463,0.002894175,0.002593915,0.001843264,0.001960032,0.001943351,0.001367852,0.000500434,0.000975846,0.000767332,0.000834056,0.000350304,0.000433709,0.000625542,0.000909121,0.000408688,0.000225195,0.000758991,0.000667245,0.000583839,0.00044205,0.00015013,0.00044205,0.000417028,0.000575499,0.000483753,0.000842397,0.000275239,0.000258557,0.000667245,0.000183492,0.000400347,0.000458731,0.000508774,0.000183492,0.00044205,0.000692267,0.000692267,0.000175152,5.84E-05,0.00059218,0.000492093,0.000200173,0,0.000250217,0.000341963,0.000492093,0.000525455,0.000425369,0.000266898,0.000166811,0.000100087,5.84E-05,8.34E-06,8.34E-06,8.34E-06,2.5E-05,3.34E-05,6.67E-05,0.000100087,0.000116768,0.000133449,0.000158471,0.000166811,0.000191833,0.000250217,0.000325282,0.000567158,0.000542137,0.00029192,0.000266898,0.000408688,0.00045039,0.000208514,0.000567158,3.34E-05,0.000341963,0.000366985,6.67E-05,0.000250217,0.00059218,0.000350304\nSRI-1053379-001.txt,CC(C)[C@H](NS(=O)(=O)c1ccccc1)C(O)=O,0.991192753,1,0.995470559,0.98389532,0.961248113,0.926522396,0.882234524,0.829894313,0.768746855,0.705586311,0.636134877,0.567689985,0.509562154,0.455712129,0.405133367,0.358832411,0.315802718,0.278309009,0.243834927,0.214393558,0.188726724,0.167589331,0.148968294,0.132611978,0.119778561,0.109209864,0.100654253,0.093356819,0.0875692,0.084650226,0.081378963,0.080473075,0.080850528,0.081680926,0.082234524,0.081605435,0.082335179,0.083417212,0.086411676,0.088902869,0.091494716,0.090739809,0.087518873,0.086562657,0.08827378,0.0905385,0.093356819,0.090790136,0.083719175,0.072622043,0.063739305,0.063714142,0.067564167,0.072496225,0.071690991,0.064318067,0.052742828,0.041796678,0.033492703,0.027428284,0.025390035,0.023351787,0.021640664,0.021690991,0.021162557,0.019803724,0.017287368,0.018369401,0.017664821,0.016633115,0.01638148,0.016406643,0.016280825,0.014318067,0.01172622,0.009864117,0.010140916,0.007121288,0.005837947,0.00508304,0.004831404,0.005485657,0.005385003,0.006643181,0.006768998,0.006844489,0.006894816,0.006970307,0.007800705,0.007096125,0.007800705,0.008329139,0.007196779,0.007171616,0.006743835,0.00691998,0.007574233,0.007473578,0.007750377,0.00762456,0.006894816,0.007498742,0.006668344,0.007473578,0.006819326,0.005762456,0.006668344,0.003875189,0.004755913,0.005309512,0.004126824,0.004781077,0.00359839,0.004051334,0.003346754,0.00402617,0.003095118,0.003044791,0.002038249,0.001585304,0.001786613,0.002264721,0.001761449,0.00148465,0.000981379,0.000603926,0.001736286,0.001383996,0.001258178,0.000503271,0.000654253,0.001107197,0.001258178,0.000150981,0.000478108,0.001333669,0.001258178,0.001459487,0.000478108,0.000805234,0.000830398,0.000880725,0,0.000201309,0.000503271,0.000553598,0.000503271,0.000402617,0.000427781,0.00035229,0.000276799,0.000301963,0.000301963,0.000276799,0.000301963,0.000276799,0.000226472,0.000226472,0.000201309,0.000226472,0.000226472,0.000226472,0.000226472,0.000427781,0.00070458,0.00070458,0.000226472,0.000251636,0.001157524,0.001711122,0.000603926,0.001283342,0.000754907,0.001560141,0.000528435,0.000578762,0.000805234,0.000603926,0.000301963,0.001082033,0.001560141\nSRI-0000360.txt,CN(C)C(C1=NC2=C(N1)C=CC=C2)C1=CC=CC=C1,1,0.961901062,0.926043239,0.890932453,0.857166335,0.822204957,0.785600096,0.745409452,0.704172954,0.658006006,0.609000314,0.559695806,0.511138336,0.466465464,0.429860603,0.399829675,0.37652209,0.360834292,0.350674575,0.345594717,0.343951233,0.345146494,0.348582869,0.353812135,0.359728676,0.365764743,0.372054803,0.377597825,0.382588038,0.386890977,0.390357234,0.392807518,0.394480883,0.394256772,0.393255741,0.39165708,0.388668928,0.385157849,0.381975467,0.379226367,0.37731395,0.377030076,0.378539092,0.382259342,0.387712719,0.396303656,0.407837923,0.423421135,0.440573128,0.458382513,0.473995607,0.488831782,0.50354843,0.519594807,0.540123411,0.564133212,0.585423795,0.598287789,0.59772004,0.579492313,0.551672618,0.526990483,0.51611361,0.520028089,0.525481466,0.513633443,0.471918842,0.402608657,0.322287132,0.242354066,0.174881594,0.12249929,0.085177272,0.059195291,0.040848038,0.029418356,0.021813509,0.016046376,0.013162809,0.010578058,0.008889752,0.007515202,0.005797015,0.005318911,0.004541991,0.004108709,0.003496138,0.003122619,0.003301908,0.002659455,0.002569811,0.002375581,0.002106647,0.001688306,0.002091706,0.001852654,0.001464194,0.001269965,0.001523958,0.001494076,0.001628543,0.001494076,0.001509017,0.001329728,0.00137455,0.000881505,0.000732097,0.001120557,0.001359609,0.000941268,0.001807832,0.001912417,0.000911386,0.000896446,0.001284905,0.000956209,0.000821742,0.001479135,0.001299846,0.001195261,0.001284905,0.001718187,0.001419372,0.001105616,0.001344668,0.000926327,0.000761979,0.001494076,0.001434313,0.001479135,0.001882536,0.001404431,0.001419372,0.001434313,0.001150439,0.001225142,0.001329728,0.001434313,0.001434313,0.000761979,0.001643484,0.001165379,0.001105616,0.00118032,0.00118032,0.001195261,0.001195261,0.001225142,0.00118032,0.001090675,0.000956209,0.000896446,0.000821742,0.00077692,0.000732097,0.000702216,0.000702216,0.000672334,0.000642453,0.000612571,0.000567749,0.000537867,0.000478104,0.000433282,0.000403401,0.000298815,0.000239052,0.000851623,0.001538898,0,0.000403401,0.000343637,0.000418341,0.000657393,0.000283874,0.000179289,0.000717156,0.000612571,0.001195261,0.000373519,0.000343637\nSRI-0000402.txt,COC(C1=NC2=C(C=CC=C2)N1C)C1=CC=CC=C1,1,0.962573365,0.923445519,0.87864697,0.829878931,0.778559075,0.724120332,0.667980379,0.612407497,0.5599535,0.509767785,0.464685701,0.42414018,0.389265361,0.359494173,0.335110153,0.31441209,0.297116448,0.285491508,0.276134849,0.268195866,0.262525164,0.259973348,0.259122742,0.259689813,0.260540418,0.262071508,0.263999546,0.265955939,0.270123905,0.274376932,0.278091242,0.283024753,0.288185092,0.293969208,0.299441436,0.307692308,0.316907199,0.324931243,0.334316255,0.344183277,0.354957612,0.370892285,0.390030905,0.408205506,0.425926451,0.440188267,0.453826306,0.469108849,0.487935581,0.515013184,0.544869432,0.572570813,0.586946043,0.582437835,0.558422411,0.528396042,0.510788511,0.51796195,0.543735292,0.560038561,0.544444129,0.492727324,0.417051802,0.332586691,0.255181604,0.190620658,0.140066347,0.100626613,0.072074626,0.052198815,0.038022059,0.026850775,0.02115172,0.016445037,0.012730727,0.011029516,0.009101477,0.00856276,0.006974964,0.006436247,0.006351187,0.004961865,0.005160339,0.004933511,0.003345714,0.003317361,0.00484845,0.003572542,0.002495109,0.003118886,0.003260654,0.002835351,0.002239927,0.002948765,0.001729564,0.002551816,0.002013099,0.001077433,0.002410048,0.002495109,0.002126513,0.002154867,0.003005472,0.001502736,0.001928039,0.001984746,0.002523463,0.002296634,0.001304262,0.00218322,0.003005472,0.00104908,0.00161615,0.002268281,0.002523463,0.001842978,0.002239927,0.001559443,0.001701211,0.000453656,0.002466756,0.002778644,0.002069806,0.00161615,0.001587797,0.001984746,0.001644504,0.001701211,0.001928039,0.002523463,0.003799371,0.002948765,0.001672857,0.002353341,0.001757918,0.002693584,0.002977119,0.002466756,0.001332615,0.001474383,0.002211574,0.002892058,0.003033826,0.002778644,0.002381695,0.002126513,0.002041453,0.001984746,0.001899685,0.001757918,0.001672857,0.00161615,0.001587797,0.001587797,0.001559443,0.001587797,0.00161615,0.00161615,0.001644504,0.001644504,0.001644504,0.001644504,0.001701211,0.001871332,0.001928039,0.001332615,0.002466756,0.004536562,0.001389322,0.001928039,0.002211574,0.001644504,0.001644504,0,0.000765545,0.001956392,0.002069806,0.002495109,0.002636877,0.002438402\nSRI-0000416.txt,CCCCCCC(=O)NC1=CC=C(C=C1)S(=O)(=O)C1=CC=C(N)C=C1,0.457012454,0.411275953,0.371256515,0.33695414,0.306463139,0.281689201,0.261679482,0.245481138,0.234047013,0.227377107,0.222612888,0.222612888,0.226424263,0.232141326,0.240621635,0.251579339,0.266443701,0.282165623,0.300364939,0.320565227,0.342099496,0.364681893,0.389169978,0.415373181,0.442529228,0.470923973,0.500462129,0.530857845,0.561253561,0.592506837,0.623474259,0.653584122,0.682664913,0.71049748,0.736938894,0.760521777,0.782036989,0.799159592,0.81148939,0.81667286,0.813890556,0.802303976,0.783208987,0.757977684,0.729592469,0.701369236,0.675985479,0.655041973,0.640615918,0.632278535,0.630277563,0.634717815,0.643302938,0.655842362,0.670840122,0.688458204,0.707496022,0.728334715,0.749668887,0.772279869,0.794357259,0.816653803,0.837759293,0.858779026,0.878922143,0.897912319,0.915406531,0.932195638,0.947955674,0.962257859,0.974244633,0.9847545,0.992977541,0.997627419,1,0.999190083,0.994378222,0.984830727,0.971405159,0.953196314,0.931557233,0.905306387,0.874967842,0.84113236,0.8036856,0.764199754,0.721969719,0.678224662,0.633107509,0.587990357,0.542196686,0.497127176,0.453753728,0.410971043,0.370827735,0.33256153,0.296077142,0.26279431,0.232389065,0.204041963,0.178296125,0.15594241,0.135160888,0.116771003,0.100429733,0.086632555,0.074350399,0.063497508,0.054617004,0.046508304,0.039428675,0.033387645,0.028204175,0.024526198,0.020276515,0.01707496,0.015026346,0.012482253,0.010824305,0.008756634,0.007765677,0.007098686,0.005869518,0.005031015,0.004259212,0.003582693,0.002839474,0.002677491,0.002677491,0.002239183,0.001715119,0.001867574,0.001772289,0.001486436,0.001324453,0.001229168,0.001152941,0.001238697,0.000705104,0.000867088,0.000752747,0.000466893,0.000819446,0.000724161,0.000771803,0.000771803,0.000752747,0.00079086,0.000781332,0.000714633,0.000657462,0.00060982,0.000571706,0.000552649,0.000533593,0.000524064,0.000495479,0.00048595,0.000466893,0.000438308,0.000409723,0.000381138,0.000343024,0.000343024,0.000343024,0.00030491,0.000171512,0.000381138,0.000781332,0.000476422,0.000161983,0.000352552,0.000142927,0.000333495,0.000514536,0.00018104,0,0.000352552,0.000533593,0.000247739,0.00091473\nSRI-1053043-001.txt,OC(=O)C(Cc1c[nH]c2ccccc12)NS(=O)(=O)c1ccc(Cl)cc1,0.992383385,1,0.997634592,0.984861387,0.961207304,0.926672344,0.882486517,0.831204466,0.776705459,0.721165673,0.668085912,0.62068313,0.577680008,0.540117324,0.507380074,0.477907087,0.450704892,0.425347715,0.400132463,0.375437601,0.350648122,0.326000568,0.301542246,0.277225849,0.25399754,0.231431545,0.210757877,0.191834611,0.175513294,0.161675655,0.150246002,0.141314221,0.134383575,0.129397294,0.126010029,0.124250166,0.123687198,0.123800738,0.124671208,0.12624657,0.128233513,0.130461728,0.132855521,0.13493708,0.137567414,0.140514713,0.143608667,0.146418772,0.149115337,0.151461822,0.153505535,0.154920049,0.156225755,0.157143533,0.157559845,0.157697039,0.157380074,0.157015801,0.15706784,0.157134071,0.156788722,0.156154792,0.154986281,0.153018261,0.149801306,0.145084682,0.139194815,0.133215063,0.128943136,0.126899423,0.125820797,0.123531081,0.11772637,0.108420853,0.095922036,0.08354622,0.07132179,0.060592298,0.051490207,0.043178163,0.036403633,0.030537421,0.025480178,0.021279213,0.017636484,0.014466837,0.012016274,0.010052985,0.008354622,0.006807645,0.005818904,0.005118743,0.004338159,0.003732614,0.003231148,0.002866875,0.002441101,0.00226133,0.001963289,0.001608478,0.001551708,0.001400322,0.001381398,0.001244205,0.001329359,0.000998202,0.000879932,0.000842085,0.000875201,0.000775854,0.000865739,0.000794777,0.000615006,0.000529851,0.00058189,0.000468351,0.000648122,0.000501467,0.00063866,0.00058189,0.000562967,0.000496736,0.000548775,0.000558236,0.000572429,0.000425773,0.000241272,0.000387927,0.00040685,0.000298041,0.00028858,0.000326426,0.000392658,0.000137194,0.000236541,0.000321696,0.000487274,0.000378465,0.000392658,0.000302772,0.000378465,0.000298041,0.000293311,0.000269657,0.000179771,0.000184502,0.000208156,0.000222348,0.000246002,0.000227079,0.000203425,0.000184502,0.000184502,0.000193963,0.000198694,0.000203425,0.000193963,0.000193963,0.000179771,0.000170309,0.000170309,0.000184502,0.000208156,0.000222348,0.000236541,0.000246002,0.000236541,0.000435235,0.000326426,0.000189233,0.000160848,0.000264926,0.000392658,0.000335888,0.000316965,0.000364273,0.000189233,0.000170309,0.000283849,0,0.000189233\nSRI-0000358.txt,CCOC(C1=NC2=C(N1)C=CC=C2)C1=CC=CC=C1,1,0.964222671,0.925135544,0.881004917,0.835298197,0.787857773,0.738368428,0.688879082,0.639704955,0.59257975,0.548606733,0.507313075,0.468541168,0.434182323,0.402660446,0.374763586,0.350649351,0.330002522,0.313295927,0.298480646,0.28729038,0.278464254,0.272317488,0.267431598,0.263176144,0.260812004,0.258337536,0.2570609,0.256824486,0.257801664,0.259346236,0.261946791,0.266091918,0.270709873,0.276131635,0.282751229,0.290946917,0.300781743,0.310695373,0.322657925,0.336842769,0.355755895,0.378656538,0.402329467,0.424520867,0.443969865,0.461480267,0.480156979,0.502868491,0.532908839,0.569237801,0.603675451,0.623502711,0.616016265,0.583580255,0.544871391,0.528070231,0.545044761,0.581704703,0.604085235,0.581200353,0.513223427,0.419981717,0.324281301,0.241158114,0.173023578,0.12131194,0.083863952,0.056629051,0.039875173,0.027849578,0.020772916,0.015855504,0.013381036,0.010875047,0.009094061,0.007817425,0.006997857,0.005894591,0.00520111,0.004807086,0.004554911,0.003987517,0.003798386,0.003325558,0.002647838,0.002537511,0.002175009,0.001985878,0.00151305,0.001812508,0.001607616,0.001670659,0.001591855,0.001245114,0.001119027,0.001134788,0.001071744,0.000914134,0.000992939,0.0010087,0.001465767,0.00133968,0.001071744,0.001308158,0.001166309,0.000914134,0.000945656,0.001481528,0.000583155,0.001560333,0.002143488,0.000866852,0.00083533,0.001607616,0.000866852,0.001497289,0.001465767,0.001134788,0.001402723,0.001071744,0.000882613,0.000693481,0.001717942,0.001402723,0.000630438,0.001733703,0.001418484,0.001434245,0.001323919,0.001970117,0.001749464,0.001733703,0.000693481,0.001450006,0.001276636,0.000992939,0.00067772,0.001670659,0.000661959,0.000788047,0.001024461,0.001166309,0.00133968,0.000851091,0.000882613,0.000945656,0.001024461,0.001119027,0.001166309,0.001150548,0.001134788,0.001055983,0.000961417,0.000898373,0.000819569,0.000756525,0.000709242,0.000646198,0.000630438,0.000646198,0.000630438,0.000646198,0.000772286,0.000898373,0.0010087,0.000945656,0.001560333,0.001418484,0.000425545,0.000646198,0.001055983,0.000898373,0.000961417,0,0.000488589,0.001197831,0.000110327,0.000598916,0.000914134,0.001765225\nSRI-1053053-001.txt,OC(=O)C1CCN(CC1)C(=O)Cn1nc(ccc1=O)-c1ccc(Cl)cc1,0.593549105,0.573511814,0.553196226,0.538446553,0.524531767,0.51006039,0.499206857,0.488909916,0.48278741,0.476664904,0.473881947,0.473603651,0.475551721,0.480004453,0.486961846,0.497258787,0.51200846,0.526758133,0.544290763,0.564884646,0.586870008,0.610525144,0.637241533,0.664514513,0.693457268,0.723791501,0.753569143,0.783903376,0.8147942,0.843152534,0.870815128,0.897169733,0.920769209,0.941919684,0.9610386,0.97723541,0.989090808,0.997550998,1,0.995658587,0.985946066,0.973116634,0.955862299,0.935435394,0.912142042,0.88692845,0.85898756,0.830072635,0.800990733,0.771213091,0.741658086,0.712381376,0.684329168,0.65430106,0.626054045,0.59716695,0.564133248,0.531823115,0.499457323,0.467536805,0.438343584,0.412128127,0.38794423,0.366571118,0.347146077,0.3274984,0.309019564,0.292516628,0.276598113,0.263045112,0.251996772,0.242033785,0.232098628,0.221746027,0.211115131,0.201764395,0.191133498,0.180140818,0.170706593,0.164277962,0.15851724,0.153619236,0.152533883,0.151893802,0.150975426,0.151253722,0.150919767,0.149528289,0.150251858,0.151142404,0.150335346,0.150224028,0.148832549,0.148081151,0.147552389,0.145854785,0.143377953,0.142765703,0.140121894,0.137645062,0.136364901,0.132440932,0.129574486,0.126318426,0.123257173,0.119778477,0.114713495,0.111930537,0.107255169,0.103080734,0.098600173,0.094258759,0.08966688,0.084407091,0.080872735,0.075779924,0.071243704,0.066623995,0.062143434,0.057885509,0.053098823,0.049675785,0.045890964,0.042133972,0.0389614,0.035148749,0.031308268,0.028664459,0.025658865,0.021484429,0.020566053,0.017003868,0.015556731,0.012745944,0.010964851,0.009462054,0.008014917,0.007430496,0.006985222,0.005120641,0.004063117,0.00322823,0.002393343,0.002282025,0.001001865,0.001113183,0.001335819,0.001113183,0.000834887,0.00064008,0.000445273,0.000222637,8.35E-05,2.78E-05,0,0,8.35E-05,0.000111318,0.000166977,0.000250466,0.000306125,0.000361784,0.000473103,0.000584421,0.000389614,2.78E-05,0.000389614,0.002115047,0.000306125,0.00130799,0.000751398,0.000333955,0.001001865,0.000890546,0.000222637,0.000306125,0.00066791,0.001168842,0.001085353,0.000584421,0.000807058\nSRI-0000600.txt,CC12CC(O)C3(Br)C(CCC4=CC(=O)C=CC34C)C1CCC21OCOC11COCO1,0.464964382,0.484062566,0.505070568,0.52607857,0.5499513,0.575733848,0.602471305,0.631118581,0.658810947,0.689368041,0.718015317,0.748572411,0.777983614,0.808063253,0.835851111,0.863447986,0.889898971,0.913676209,0.935830103,0.955214759,0.970588797,0.984243998,0.992647199,0.997994691,1,0.997039782,0.991214835,0.98023338,0.965623269,0.947957449,0.926090029,0.900756288,0.873321747,0.842783751,0.810374133,0.776684937,0.741658868,0.707864632,0.673974905,0.640877753,0.609852753,0.580107332,0.552749184,0.527539581,0.504115659,0.483241344,0.463703902,0.446114475,0.429938313,0.413914937,0.398922862,0.384217261,0.36960715,0.354815607,0.339594355,0.324525888,0.308368824,0.291629266,0.274364508,0.257157044,0.239710853,0.222302859,0.205133592,0.18769695,0.171320257,0.154867172,0.139216211,0.124663395,0.111027291,0.098164665,0.086056416,0.075456924,0.066251599,0.057504631,0.0499513,0.043677546,0.037661618,0.03291572,0.029086534,0.02544833,0.022153893,0.019986249,0.017942744,0.016128416,0.01482974,0.013798438,0.012919921,0.012175092,0.011325223,0.011105594,0.010589943,0.010246176,0.009663681,0.009596837,0.009625485,0.009329463,0.009090735,0.00883291,0.008603732,0.008555986,0.008470044,0.008584634,0.008326808,0.008183572,0.007916197,0.007639274,0.007448292,0.007209564,0.00673211,0.00673211,0.006798953,0.00673211,0.006455186,0.006044575,0.00610187,0.006073222,0.005796299,0.005567121,0.005395237,0.005385688,0.005548022,0.005414335,0.005146961,0.004850939,0.004822291,0.005137411,0.004497622,0.004478524,0.004545368,0.004001069,0.004020168,0.00357136,0.003074808,0.003218044,0.003370829,0.003113004,0.002721491,0.002845629,0.002635549,0.002396822,0.002349077,0.002196291,0.00189072,0.002091251,0.002349077,0.002033957,0.001900269,0.001871622,0.001823877,0.001737935,0.001632895,0.001556502,0.001489658,0.001441913,0.001403717,0.00136552,0.001327324,0.001279578,0.001222284,0.001164989,0.001117244,0.001040851,0.000974007,0.000907164,0.000811673,0.000754378,0.000907164,0.000620691,0.000372415,0.00084032,0.000993106,0.001079047,0.000391513,0,9.55E-05,0.000496553,0.000677986,0.000515651,0.000353316,0.000248276,0.000391513\nSRI-0000614.txt,CC1(C)OCC(O1)C(NCC1=CC=CC=C1)C#N,1,0.824120603,0.668341709,0.542713568,0.43718593,0.351758794,0.281407035,0.226130653,0.185929648,0.155778894,0.125628141,0.108040201,0.090954774,0.077889447,0.065829146,0.057788945,0.053768844,0.047738693,0.044723618,0.042713568,0.042211055,0.040201005,0.040703518,0.04120603,0.040201005,0.042211055,0.044221106,0.046733668,0.047738693,0.050251256,0.053266332,0.055778894,0.059798995,0.063567839,0.065125628,0.069899497,0.074070352,0.081557789,0.08718593,0.090653266,0.092462312,0.090050251,0.087839196,0.08879397,0.088291457,0.087688442,0.085125628,0.08120603,0.074422111,0.071055276,0.066281407,0.058743719,0.052613065,0.05,0.045929648,0.043869347,0.041758794,0.041809045,0.039849246,0.04160804,0.040552764,0.040753769,0.040251256,0.041105528,0.041005025,0.039849246,0.039145729,0.041708543,0.043517588,0.040452261,0.041457286,0.040653266,0.041306533,0.040251256,0.037638191,0.036984925,0.036582915,0.034371859,0.031356784,0.027537688,0.025075377,0.025025126,0.023768844,0.020100503,0.017085427,0.014120603,0.012613065,0.010452261,0.009246231,0.005778894,0.003165829,0.002763819,0.000703518,0.002311558,0.005175879,0.002512563,0.001256281,0.001507538,0.00281407,0.001557789,0.002512563,0.001306533,0.002462312,0.001859296,0.002713568,0.002462312,0,0.003467337,0.001859296,0.002713568,0.001407035,0.001909548,0.002261307,0.001859296,0.002512563,0.002462312,0.002110553,0.002060302,0.002160804,0.002663317,0.004070352,0.00160804,0.001859296,0.002060302,0.00281407,0.005025126,0.003919598,0.002261307,0.003668342,0.002311558,0.002562814,0.002361809,0.001708543,0.002211055,0.003015075,0.004120603,0.003969849,0.001708543,5.03E-05,0.002261307,0.001859296,0.000351759,0.001105528,0.000150754,0.001407035,0.00120603,0.001155779,0.001105528,0.001005025,0.001457286,0.001959799,0.002261307,0.002512563,0.002663317,0.002713568,0.002663317,0.002562814,0.002512563,0.00241206,0.002361809,0.002261307,0.002110553,0.001959799,0.00201005,0.002261307,0.002663317,0.001557789,0.00361809,0.002512563,0.001005025,0.003768844,0.003919598,0.001005025,0.00160804,0.002160804,0.002060302,0.003266332,0.003015075,0.001356784,0.002562814,0.004020101\nSRI-1052822-001.txt,CN1CCN(CC1)C(=O)C(\\C#N)=C1/SC(Cc2ccc(F)cc2)C(=O)N1c1ccccc1,0.650049809,0.621085411,0.596181053,0.573829914,0.55503654,0.539173092,0.524983885,0.513473467,0.503302444,0.49493123,0.487899412,0.482081418,0.477309827,0.474045054,0.471910395,0.470026872,0.469147894,0.469106038,0.469608311,0.470947705,0.472663804,0.474379902,0.476933122,0.479486342,0.48195585,0.484843919,0.487648275,0.490289393,0.492524507,0.494927045,0.497070075,0.498681534,0.499757235,0.500431117,0.500138125,0.500359962,0.499857689,0.498769432,0.496994735,0.494629867,0.492193844,0.490029885,0.487200415,0.48474765,0.482257214,0.479201721,0.476116929,0.472956796,0.469537156,0.467448538,0.467381568,0.467992667,0.469725508,0.471094201,0.472462895,0.474225035,0.478209732,0.484697423,0.493742518,0.505340834,0.519057067,0.534510326,0.551792695,0.570732565,0.591250408,0.613128573,0.635864788,0.659802272,0.684761044,0.710083963,0.735812887,0.761947814,0.787764635,0.812459714,0.836941326,0.860569075,0.882878358,0.903915216,0.923273647,0.941267569,0.957202173,0.971115129,0.982692517,0.991448806,0.997250057,1,0.998957784,0.994604753,0.986773483,0.97563977,0.961538462,0.944540713,0.925445976,0.904371447,0.881681274,0.857187105,0.830637803,0.802493784,0.772261148,0.739069289,0.70384741,0.665737462,0.624295772,0.581209138,0.536435705,0.490812594,0.445269009,0.400164913,0.356969453,0.316038407,0.278112626,0.243146069,0.21175402,0.183785797,0.15878517,0.137141398,0.11797132,0.101341905,0.087177813,0.074780046,0.064374629,0.055346275,0.04761546,0.04119474,0.035489758,0.030333091,0.025996802,0.022681802,0.019584453,0.016968449,0.014741706,0.012996308,0.011183941,0.009647823,0.008496781,0.00738341,0.006676042,0.005880777,0.005026913,0.004394887,0.004131194,0.003561951,0.003122462,0.002632747,0.002595076,0.002385796,0.002260228,0.002247671,0.002151402,0.001883523,0.001611459,0.001377065,0.00120964,0.001096629,0.001033845,0.000987803,0.000950133,0.000904091,0.000866421,0.000832936,0.000795265,0.000736667,0.000678068,0.000627841,0.000573428,0.0005525,0.000460417,0.000460417,0.000477159,0.000259508,0.000330663,0.000431117,0.000481345,0.000489716,0.000322292,0.000305549,0.000272064,0.000322292,0,0.00034322,0.000359962\nSRI-1052832-001.txt,CCc1cc(=O)oc2c(C)c(OCC(=O)N[C@@H](Cc3c[nH]c4ccccc34)C(O)=O)ccc12,0.989064869,0.999307047,1,0.990416972,0.968512907,0.930434312,0.878665677,0.816046418,0.744401872,0.668650314,0.594639589,0.525580939,0.462910976,0.408184616,0.361114538,0.321768348,0.289216473,0.262326529,0.240135143,0.22194936,0.206957921,0.194214352,0.183279221,0.173459575,0.16445119,0.156051251,0.148496377,0.141947129,0.136812519,0.133197334,0.131216504,0.130310595,0.129791725,0.128826662,0.12722273,0.124750072,0.121865023,0.11945828,0.11787294,0.117769842,0.119089832,0.121944459,0.125994007,0.131003548,0.136685759,0.142939235,0.1495882,0.156352094,0.163315424,0.17050185,0.177252223,0.184046539,0.190795222,0.197396864,0.20338837,0.209063821,0.214370824,0.219527406,0.224729622,0.23010423,0.235483909,0.240425845,0.244301309,0.246846643,0.247828607,0.247140725,0.245239331,0.243637089,0.243321035,0.244899615,0.247090021,0.247395935,0.243662441,0.235860808,0.225476658,0.214416458,0.204459911,0.196391238,0.190435225,0.186064553,0.183546261,0.182797534,0.183733866,0.185821174,0.189500584,0.194232944,0.199879663,0.20655229,0.213897588,0.221783728,0.230014653,0.238568394,0.247150866,0.255674184,0.263922011,0.271843643,0.279241335,0.286125228,0.292522365,0.298441195,0.3040389,0.309254636,0.314157699,0.318928932,0.323127211,0.326840423,0.329933358,0.332111934,0.333158123,0.333175025,0.331630247,0.328689424,0.32443368,0.319062452,0.312359402,0.305186497,0.297452469,0.289532527,0.281764697,0.273611517,0.265657773,0.257558677,0.249228034,0.240348099,0.230665353,0.220159514,0.20853143,0.195811524,0.182645423,0.168766088,0.154824218,0.140290804,0.125167534,0.110150743,0.095696764,0.082192637,0.069814137,0.058642387,0.048760206,0.040228438,0.032933843,0.026741213,0.021618433,0.017408323,0.014006095,0.011592591,0.010216827,0.009581338,0.008837682,0.007465297,0.005861366,0.004419686,0.003483355,0.002944204,0.002618009,0.00237463,0.002153224,0.001940267,0.001732382,0.001526186,0.00132168,0.001083372,0.000843374,0.000635488,0.000466475,0.000376899,0.000359997,0.000336336,0.000231548,0.000270421,0.000221407,0.00013183,0.000145351,0.000114929,0.000153802,9.97E-05,5.07E-05,4.39E-05,3.72E-05,2.37E-05,0\nSRI-0000199.txt,CC1=C2N(CCO)C3=C(C=CC=C3)C2=C(C)C2=C1C=CN=C2,0.259647212,0.264172288,0.267859387,0.269786735,0.270876105,0.270289521,0.269200151,0.267189006,0.266183433,0.266183433,0.268278376,0.271043701,0.275065991,0.279423472,0.284870323,0.29048477,0.297188587,0.30330582,0.309674446,0.316043072,0.321741316,0.325428416,0.326685381,0.325679809,0.323744082,0.32089496,0.318758118,0.318724599,0.321137973,0.325780366,0.331411572,0.336799765,0.340386307,0.340478485,0.336431055,0.328042904,0.315129677,0.299216491,0.282699962,0.266233712,0.252147316,0.241186576,0.23332635,0.228910211,0.227661625,0.228809653,0.232538652,0.23846315,0.246365274,0.256731051,0.268010223,0.279783802,0.29231994,0.303808606,0.313260988,0.321288809,0.327900448,0.333079147,0.337855617,0.341886287,0.345657184,0.349629195,0.353165459,0.356391671,0.359927934,0.362953031,0.366346839,0.370461306,0.376268488,0.383961118,0.394896719,0.40915909,0.42675661,0.448535635,0.474228014,0.503087946,0.534579126,0.568223907,0.60367872,0.641228474,0.681174844,0.724297147,0.769388696,0.816700884,0.865094063,0.909934219,0.95056773,0.980894122,0.998927389,1,0.984145473,0.951523023,0.902249969,0.838949177,0.766045167,0.686630075,0.604290443,0.522989902,0.444655801,0.371584196,0.305593497,0.247555202,0.196924624,0.153793941,0.118070977,0.088892613,0.065990698,0.047571961,0.033284451,0.022491306,0.014564042,0.008731722,0.004868647,0.002153601,0.00072066,0,5.03E-05,0.000343571,0.001365903,0.001893828,0.002430134,0.003955252,0.004701052,0.006025056,0.007726149,0.009293166,0.010592031,0.012385302,0.013642268,0.015888046,0.018226002,0.020949428,0.024209159,0.026681192,0.029480035,0.031826371,0.03369506,0.035454812,0.036611221,0.037759249,0.037993883,0.03734864,0.036577701,0.035563749,0.034692253,0.034097289,0.033887795,0.033778858,0.03370344,0.033770478,0.033720199,0.033611262,0.033443667,0.033167135,0.032739766,0.032178322,0.031466041,0.030561026,0.029446516,0.028097373,0.026463318,0.024594629,0.022239913,0.019332132,0.016055642,0.013156241,0.011270792,0.010281979,0.009670256,0.009326685,0.009930029,0.01024846,0.010374157,0.011497046,0.011924414,0.012779151,0.0139188,0.014807056,0.015779109,0.017237189,0.018158964\nSRI-1053182-001.txt,CC(C)C(NS(=O)(=O)c1ccc(C)cc1)C(=O)N1CCOCC1,0.915665391,0.933006102,0.949778266,0.965981882,0.980858886,0.992040329,0.998294356,1,0.996588712,0.986733882,0.96891938,0.944661335,0.913296441,0.874635182,0.830383201,0.779308646,0.724254255,0.664840996,0.604101126,0.540708032,0.477030664,0.414679908,0.354698101,0.298980404,0.249611492,0.20640185,0.17010954,0.140166016,0.116476519,0.098083993,0.083756586,0.073153167,0.065496721,0.059924952,0.05616306,0.054078384,0.05302657,0.052581208,0.05135883,0.050212258,0.048999356,0.047881211,0.048241292,0.048781412,0.04953,0.049397339,0.047397946,0.044318311,0.04175037,0.039362468,0.037448357,0.035249972,0.032104006,0.029450783,0.027820945,0.027015502,0.025527802,0.0222397,0.01838305,0.01470644,0.011674184,0.009362089,0.008044953,0.007542736,0.006339309,0.005704431,0.005647576,0.005495963,0.00491794,0.004699996,0.004737899,0.004728424,0.00462419,0.004197779,0.003145965,0.002662699,0.002444756,0.001999394,0.001497176,0.001174999,0.00083387,0.000701209,0.00083387,0.000966531,0.000663306,0.000464314,0.000379032,0.000341129,0.000758064,0.000502217,0.000568548,0.000540121,0.000758064,0.000274798,0.000397984,0.000322177,0.000217943,0.000312701,0.000909677,0.000397984,0.000511693,0.000502217,0.000871773,0.000615927,0.000596975,0.000236895,0.000454838,0.000606451,0.000919152,0.000568548,0,0.000208468,0.000691733,0.000511693,0.000720161,0.000369556,0.000227419,0.000615927,0.000217943,0.000530645,0.000284274,0.000236895,0.000303226,0.000208468,0.000303226,0.000274798,0.000284274,0.000407459,0.000682258,0.000303226,0.000814919,0.000350605,0.000521169,0.000540121,0.000236895,0.000492742,0.000682258,0.000123185,0.000341129,0.000625403,0.000682258,0.000435887,0.000540121,0.000606451,0.00047379,0.000578024,0.000625403,0.000578024,0.00047379,0.000312701,0.000246371,0.000198992,0.000151613,0.00011371,0.000104234,9.48E-05,9.48E-05,0.00011371,0.000132661,0.000161089,0.00018004,0.000217943,0.000217943,0.000236895,0.000312701,0.00047379,0.000644354,0.000142137,0.000540121,0.000379032,0.000426411,0.000530645,0.000388508,0.000407459,0.000341129,0.000445363,0.000303226,0.000255847,0.000445363,0.000814919,0.00065383\nSRI-1053192-001.txt,COc1ccc(c2ccccc12)S(=O)(=O)NC(C(C)C)C(O)=O,0.795292187,0.829193157,0.861374512,0.892327572,0.919595743,0.942687708,0.961603467,0.9758517,0.986365914,0.992679356,0.997076655,1,0.999926302,0.994276141,0.976736074,0.942319219,0.886505449,0.808484086,0.712259377,0.605569585,0.49878153,0.399756306,0.312645553,0.240004127,0.182053121,0.137097487,0.103638704,0.079023652,0.061557283,0.049298889,0.040811363,0.035023632,0.031090629,0.028469445,0.026627001,0.025465033,0.025025303,0.025052325,0.025573123,0.026619631,0.027899516,0.029724763,0.031726886,0.034085214,0.036694115,0.039661678,0.04288227,0.046540136,0.050554207,0.054980986,0.059712382,0.064640306,0.069914609,0.075257697,0.08095699,0.086862637,0.092962355,0.09948215,0.106203386,0.113290654,0.120908546,0.128838425,0.136824806,0.144838209,0.152615779,0.160299999,0.168001415,0.175533326,0.182785186,0.189786473,0.196819696,0.204054359,0.211352894,0.218317333,0.225151572,0.231501862,0.237063586,0.241912899,0.246000668,0.249245826,0.251422367,0.252594161,0.252793145,0.252228129,0.251063704,0.24944481,0.247314945,0.244126288,0.240409465,0.235481541,0.229482543,0.222581976,0.214981281,0.206960508,0.199377008,0.192842473,0.187519039,0.183320723,0.179603899,0.175385931,0.169637505,0.161560231,0.150645592,0.137205577,0.121834681,0.105451669,0.089233248,0.073454558,0.059081038,0.046643313,0.036165948,0.027531027,0.021003862,0.015810626,0.01184323,0.008819165,0.006760541,0.005232541,0.003960026,0.003024065,0.002466418,0.002070907,0.001717158,0.001417454,0.001161968,0.001014573,0.000773826,0.000599408,0.000628888,0.000611691,0.000496232,0.000427447,0.000437273,0.000314444,0.000346379,0.000353749,0.000427447,0.000203897,0.000213724,0.000275138,0.000169505,0.000164592,0.000191614,7.86E-05,0.00012283,0.000164592,0.000164592,0.000135113,9.58E-05,6.14E-05,2.46E-05,2.46E-06,0,4.91E-06,7.37E-06,1.23E-05,1.72E-05,1.72E-05,1.97E-05,2.7E-05,3.19E-05,3.93E-05,3.93E-05,5.4E-05,9.34E-05,0.000127743,0.000176875,0.000206354,0.000127743,0.000105633,0.000137569,0.000167048,2.95E-05,0.000171961,8.11E-05,9.58E-05,9.09E-05,9.58E-05,0.000235833,0.000245659,0.000137569\nSRI-1053098-001.txt,O=C(Nc1ccc(Oc2ccccc2)cc1)C1(CCCCC1)n1cnnn1,0.616487749,0.60084331,0.588178764,0.580729031,0.573279298,0.569554431,0.568064485,0.569554431,0.574024271,0.579984058,0.588923737,0.60084331,0.614997802,0.631387215,0.650458531,0.671094291,0.694411955,0.718325598,0.743207706,0.769356269,0.795728323,0.822174875,0.847056983,0.871864594,0.89540575,0.917233467,0.936975259,0.954929116,0.970052074,0.981897149,0.991209315,0.996573123,1,0.998249313,0.993965716,0.9860392,0.974529363,0.960166278,0.942182623,0.920995582,0.897171336,0.872117885,0.844941259,0.816095893,0.785388094,0.752735914,0.719532455,0.686045905,0.652909493,0.619452743,0.586301431,0.552703136,0.517823486,0.482712895,0.448161033,0.415292812,0.384599912,0.357192345,0.33250393,0.309029821,0.285816453,0.26302772,0.240805167,0.22008001,0.201187487,0.183799811,0.168311816,0.15397853,0.140226323,0.127546877,0.115448511,0.103536388,0.092413937,0.082207803,0.072999933,0.064790327,0.05718415,0.049808914,0.042999858,0.036526041,0.030841894,0.025411039,0.020456967,0.015860481,0.012634747,0.009811298,0.007948865,0.00613113,0.004849776,0.003873861,0.002696803,0.002555258,0.002115724,0.001735788,0.0013931,0.001177058,0.001281354,0.000789672,0.000916317,0.001035513,0.001042963,0.000759873,0.000961016,0.001028063,0.000797121,0.000722624,0.000916317,0.000700275,0.000774772,0.000923767,0.001057862,0.000812021,0.000409735,0.000357587,0.001005714,0.000417185,0.000715174,0.000648127,0.00055128,0.000461883,0.000521481,0.000417185,0.000223492,0.000186243,0.000528931,0.000663026,0.000640677,0.000640677,0.000528931,0.000424635,0.000342688,0.000387386,7.45E-06,0.000104296,0.000543831,0.000581079,0.000454434,0.000394836,0.000238391,0.000178794,0.000379936,0.000365037,0.000335238,0.000581079,0.000350137,0.000238391,0.00028309,0.000327788,0.000327788,0.000238391,0.000126645,4.47E-05,2.98E-05,2.23E-05,0,1.49E-05,2.98E-05,3.72E-05,5.96E-05,7.45E-05,9.68E-05,0.000104296,0.000126645,0.000111746,7.45E-05,2.23E-05,2.98E-05,0.000491682,0.000193693,0.000253291,0.000245841,0.000238391,0.000469333,0.000491682,0.000417185,0.000148995,0.000253291,0.000216042,5.21E-05,0.000320339,0.000245841\nSRI-0000012.txt,COC(=O)NCC1=NC2=CC(C)=C(C)C=C2N1,1,0.873451094,0.767993673,0.644081202,0.562351701,0.491167941,0.430529924,0.356709728,0.301344582,0.253888742,0.21961508,0.182704983,0.164249934,0.151067756,0.158977063,0.16688637,0.161613499,0.177432112,0.190614289,0.202741893,0.220142368,0.243870287,0.273662009,0.296598998,0.321117849,0.349327709,0.372528342,0.398892697,0.429475349,0.457157922,0.487213288,0.503559188,0.52148695,0.552860533,0.57342473,0.598734511,0.619825995,0.633271817,0.642235697,0.643817559,0.647244925,0.635908252,0.6380174,0.636171896,0.613234906,0.592934353,0.587397838,0.569997364,0.544423939,0.520432375,0.486422357,0.456366992,0.432639072,0.40284735,0.368310045,0.332454521,0.303981018,0.26707092,0.233324545,0.211969417,0.18323227,0.153704192,0.140522014,0.127867124,0.112312154,0.088320591,0.080938571,0.066701819,0.051674137,0.049828632,0.03928289,0.020827841,0.022146059,0.02372792,0.030582652,0.014500395,0.018982336,0.0163459,0.017136831,0.006591089,0.002372792,0.008963881,0.012654891,0.013182178,0.008963881,0.012918534,0.010545742,0.014500395,0.016873187,0.018982336,0.019773267,0.018982336,0.022409702,0.031109939,0.034800949,0.033219088,0.038491959,0.028473504,0.031637226,0.029528078,0.025573425,0.041128394,0.02820986,0.022146059,0.031109939,0.028473504,0.024782494,0.021355128,0.033219088,0.024782494,0.023464276,0.023464276,0.00817295,0.018718692,0.0163459,0.00817295,0.008436594,0.012127603,0.007118376,0.011336673,0.018718692,0.022409702,0,0.023200633,0.020827841,0.020827841,0.02003691,0.015818613,0.016873187,0.023200633,0.018982336,0.024518851,0.022409702,0.023464276,0.018191405,0.016873187,0.022673346,0.031637226,0.035328236,0.024782494,0.018718692,0.041128394,0.04007382,0.034800949,0.031109939,0.022936989,0.013445821,0.012127603,0.025573425,0.04376483,0.056947008,0.066174532,0.069074611,0.067756393,0.064329027,0.059847087,0.055892433,0.051410493,0.04745584,0.04376483,0.040864751,0.037437385,0.034537306,0.03190087,0.033219088,0.035064593,0.03928289,0.045346691,0.053783285,0.051146849,0.059847087,0.059847087,0.056156077,0.04745584,0.040601107,0.046401265,0.044819404,0.054046929,0.049301345,0.055892433,0.044292117\nSRI-1053088-001.txt,COc1ccccc1Oc1ccc(cc1)S(=O)(=O)NCCCC(O)=O,1,0.925463352,0.865017413,0.815779993,0.777590969,0.747808334,0.725711541,0.710019615,0.697450062,0.688002882,0.68119771,0.673431808,0.663344142,0.650534406,0.633081142,0.610824226,0.583923782,0.55245987,0.515792002,0.474720788,0.430287018,0.382890997,0.333813698,0.284416156,0.237820744,0.195388495,0.158160202,0.127496898,0.102437853,0.083175213,0.068596133,0.058300308,0.051214923,0.046299187,0.042480285,0.039582082,0.037652616,0.037036147,0.036996117,0.03709219,0.036900044,0.035739162,0.035002602,0.034818462,0.035138705,0.035330851,0.035522997,0.035410912,0.036531764,0.037756695,0.03915776,0.040903086,0.042528322,0.044946159,0.048020496,0.051238942,0.055241984,0.060061647,0.065137505,0.070773788,0.07680237,0.083511469,0.090412714,0.098322725,0.10651295,0.115559825,0.124350506,0.133621552,0.144029462,0.154925744,0.166558585,0.178031304,0.190104479,0.202081582,0.213650374,0.225923702,0.237396421,0.248917177,0.260590048,0.271518354,0.282326568,0.292550338,0.301837396,0.310259797,0.317641407,0.323365758,0.328025299,0.330755374,0.332108402,0.331828189,0.329242224,0.325391297,0.319795044,0.312293343,0.303646772,0.293687202,0.282166446,0.269532845,0.255161923,0.239325888,0.22214483,0.203474641,0.184043873,0.164292863,0.14479004,0.125047036,0.107145431,0.090676914,0.075409311,0.062087186,0.050542412,0.040839038,0.032688844,0.025931708,0.020559625,0.016100236,0.01306593,0.011320604,0.009086906,0.007141427,0.006108643,0.005083864,0.004339298,0.003866939,0.003442616,0.002890197,0.002569953,0.002425844,0.002121612,0.002161643,0.001649253,0.001545174,0.001337016,0.001465113,0.001385053,0.00155318,0.00110484,0.001192907,0.001176894,0.000696529,0.000664505,0.000832633,0.000648493,0.000464353,0.000544414,0.00059245,0.000568432,0.000608462,0.000600456,0.000496377,0.000424322,0.000336256,0.000256195,0.000200152,0.000152116,0.000128097,0.000104079,8.81E-05,7.21E-05,4.8E-05,4E-05,4E-05,6.4E-05,9.61E-05,0.000160122,0.000160122,0.000160122,0.000232176,7.21E-05,5.6E-05,0,0.000264201,0.000128097,0.000336256,0.000800608,0.000424322,0.000488371,0.000496377,0.000488371,0.000112085,0.000256195\nSRI-1052938-001.txt,CS(=O)(=O)Nc1ccc(CC(=O)N[C@@H](Cc2c[nH]c3ccccc23)C(O)=O)cc1,0.970196228,0.987207444,0.995462664,1,0.996449041,0.983201235,0.965355392,0.943670265,0.915171546,0.876535903,0.827960612,0.778960419,0.728822098,0.679154204,0.632612367,0.588392311,0.546554736,0.506219489,0.466779569,0.4275521,0.388916457,0.350887816,0.313815201,0.278487717,0.246058664,0.216619093,0.191276782,0.169923988,0.152680594,0.139502593,0.129937767,0.123643162,0.120127106,0.118913103,0.119712828,0.122131728,0.125725177,0.130336871,0.135752841,0.141712078,0.148081041,0.154990235,0.161899429,0.169059011,0.176373379,0.183669536,0.190911064,0.197928001,0.204592877,0.21111966,0.216993916,0.222387124,0.227278039,0.231388956,0.234653106,0.236668351,0.237935467,0.238765541,0.240085769,0.241870354,0.24351988,0.24441369,0.243973614,0.241721638,0.236906599,0.229218926,0.219679898,0.210318418,0.203392531,0.199692857,0.197012946,0.191619738,0.179827217,0.161863009,0.14051325,0.119075476,0.099678744,0.082831419,0.068592682,0.056519423,0.046385534,0.037857163,0.030588321,0.024597217,0.019556069,0.015601455,0.012265982,0.009683191,0.007595106,0.005951649,0.004669359,0.003767962,0.002965202,0.002405243,0.001892327,0.001572134,0.001380928,0.001133575,0.001013692,0.000922642,0.000792137,0.000676807,0.000678324,0.000673772,0.000570581,0.000482566,0.000447664,0.000549336,0.000446146,0.000408208,0.000396068,0.000353578,0.000321711,0.000406691,0.000397586,0.000309571,0.000241283,0.000242801,0.000286808,0.000230661,0.000311088,0.000271633,0.000288326,0.000279221,0.000265563,0.000289843,0.000312606,0.000295913,0.000217003,0.000279221,0.000247353,0.000197275,0.000201828,0.000141128,0.000221556,0.000156303,0.000233696,0.000192723,0.000189688,0.000209416,0.000130505,0.000147198,0.000122918,0.000142645,0.000160855,0.000179065,0.000186653,0.000186653,0.000174513,0.000144163,0.000119883,0.00010926,0.000101673,9.41E-05,8.8E-05,8.04E-05,8.35E-05,8.8E-05,8.95E-05,9.11E-05,9.26E-05,8.95E-05,8.19E-05,7.13E-05,5.92E-05,4.4E-05,4.7E-05,4.86E-05,4.7E-05,6.68E-05,0.000101673,8.65E-05,5.31E-05,0,7.44E-05,3.64E-05,4.55E-05,9.11E-06,3.64E-05,6.07E-05,7.44E-05\nSRI-1052840-001.txt,CC(C)c1ccc(cc1)-c1nc(CC(=O)N[C@@H](Cc2c[nH]c3ccccc23)C(O)=O)cs1,0.964616029,0.982761655,0.995282137,1,0.997641069,0.986753693,0.963345836,0.933587009,0.894573913,0.845036355,0.789329283,0.73313228,0.679384936,0.630990552,0.588638661,0.552311118,0.521082495,0.494317697,0.47078282,0.449606875,0.430281783,0.412190594,0.394861522,0.378221983,0.362036084,0.346303827,0.331061501,0.316163942,0.301756315,0.287820474,0.274392711,0.261901262,0.250222738,0.239402501,0.229262725,0.220284269,0.212093334,0.205234287,0.199511157,0.194620911,0.19053633,0.187026966,0.18418899,0.182312733,0.181701225,0.18207321,0.182537738,0.182287329,0.181628643,0.180913705,0.180786685,0.181723,0.182975048,0.183873256,0.183160133,0.180659666,0.177257361,0.17398389,0.171378178,0.169806767,0.168903115,0.168023052,0.166756488,0.164640708,0.161389011,0.15650058,0.150214935,0.143281491,0.13756199,0.13382762,0.131965879,0.130312812,0.126237305,0.118253229,0.106973908,0.094268341,0.081608138,0.0703143,0.060435822,0.051675113,0.044099315,0.037428983,0.03181654,0.026773871,0.022413477,0.01875169,0.015639715,0.013006785,0.01086923,0.009089144,0.007633865,0.006421737,0.005510827,0.004770485,0.004237004,0.003681747,0.003306133,0.003019432,0.002814387,0.002629301,0.002516798,0.002288163,0.002141184,0.002043197,0.001976059,0.001838152,0.001683914,0.001671212,0.001435319,0.001498829,0.001326445,0.00136818,0.001311929,0.00118128,0.001110512,0.001041559,0.000921798,0.000921798,0.000889136,0.000792964,0.000716752,0.00078752,0.000573402,0.0005607,0.000386502,0.000355654,0.00033388,0.000332065,0.000328436,0.000324807,0.000313919,0.000268555,0.000208675,0.000145165,0.000176013,0.000188715,0.000177827,0.000121576,0.000148794,0.0001869,0.000205046,0.000141536,0.000150609,0.000137907,0.000112503,0.00014698,0.000161496,0.000165125,0.000161496,0.000152423,0.000148794,0.000145165,0.000137907,0.000127019,0.000116132,0.000110688,0.000105245,9.98E-05,9.07E-05,8.53E-05,8.17E-05,7.98E-05,7.8E-05,8.17E-05,7.8E-05,5.81E-05,5.81E-05,0.000148794,9.44E-05,0.000150609,9.62E-05,7.8E-05,5.26E-05,0.000110688,0.000134278,7.08E-05,5.44E-05,0,2.36E-05,2.9E-05,6.9E-05\nSRI-1052928-001.txt,COc1ccc2n(C)c(cc2c1)C(=O)N[C@@H](C)C(=O)NCCc1c[nH]c2ccccc12,0.967250696,1,1,0.967250696,0.934501392,0.885377436,0.803504176,0.738005567,0.639757655,0.590633699,0.525135091,0.476011135,0.426887179,0.394137875,0.377763223,0.328639266,0.31717701,0.300802358,0.289340102,0.277877845,0.263140658,0.251678402,0.241853611,0.230391354,0.227116424,0.214016702,0.204191911,0.200916981,0.187817259,0.184542328,0.177992468,0.168167676,0.164892746,0.148518094,0.137383331,0.133780907,0.128049779,0.123628623,0.123628623,0.121991158,0.120189946,0.124119862,0.124119862,0.121499918,0.13034223,0.129687244,0.132143442,0.136400851,0.137219584,0.149009334,0.150483052,0.156377927,0.159325364,0.162600295,0.174553791,0.176682495,0.188144752,0.192074668,0.199770755,0.208613067,0.215817914,0.223841493,0.229900115,0.233338792,0.243491076,0.251350909,0.25691829,0.262158179,0.261994433,0.268871786,0.274275422,0.282135255,0.280497789,0.284263959,0.277714099,0.276567873,0.277550352,0.271491731,0.267561814,0.25740953,0.251023416,0.255117079,0.242999836,0.237759948,0.222531521,0.223677747,0.208285574,0.198297036,0.188472245,0.178647454,0.167185197,0.162600295,0.149991813,0.140003275,0.131324709,0.12657606,0.126412314,0.118061241,0.117406255,0.110528901,0.104797773,0.10070411,0.09317177,0.092025544,0.098084166,0.089733093,0.085311937,0.089733093,0.093499263,0.091534305,0.082855739,0.079580809,0.073030948,0.077943344,0.075814639,0.080072048,0.065334862,0.061404945,0.062059931,0.065171115,0.061077452,0.054363845,0.06025872,0.052562633,0.060094973,0.058785001,0.054036352,0.053708859,0.046995251,0.040445391,0.036187981,0.036351728,0.029801867,0.032421811,0.032421811,0.02587195,0.027181922,0.024070738,0.023088259,0.020795808,0.01833961,0.016047159,0.008842312,0.012608482,0.012608482,0.013590961,0.01506468,0.010971017,0.009006059,0.005567382,0.00425741,0.00376617,0.00327493,0.002783691,0.003602423,0.004584903,0.005567382,0.006549861,0.006877354,0.007204847,0.007204847,0.007368593,0.008187326,0.008023579,0.00753234,0.005567382,0.005567382,0.011134763,0.001801212,0,0.002947437,0.010152284,0.004748649,0.006386114,0.009497298,0.005076142,0.008023579,0.017193385,0.017029638,0.009988538,0.008842312\nSRI-1053286-001.txt,Cc1ccc(cc1)S(=O)(=O)NC(C(O)=O)c1ccccc1,0.887812429,0.910510845,0.931991721,0.951994156,0.97051815,0.984867723,0.995738612,1,0.997477954,0.988520342,0.971648722,0.948428504,0.916859444,0.877985146,0.833110118,0.781886491,0.726401475,0.666742038,0.605256292,0.5412485,0.478023412,0.4167116,0.358095768,0.303480424,0.255039744,0.212599795,0.177204181,0.147722331,0.124067278,0.106065086,0.091915538,0.081923017,0.074304698,0.068886647,0.065477536,0.06300767,0.061981459,0.061964065,0.062224967,0.06150314,0.060059486,0.058024455,0.057537439,0.058137512,0.058433201,0.057937488,0.055511106,0.051980241,0.048666794,0.046266502,0.042970449,0.039570035,0.035508671,0.032238707,0.030012349,0.028612179,0.0261771,0.022567965,0.01829788,0.014323483,0.010740438,0.008635834,0.007235663,0.006087698,0.004957125,0.004165725,0.004165725,0.003626528,0.003409111,0.002896005,0.003017759,0.002261145,0.00198285,0.00195676,0.001852399,0.002165481,0.001887186,0.00134799,0.001574105,0.00129581,0.001461047,0.001652375,0.001565408,0.001304507,0.001539318,0.001452351,0.001382777,0.001434957,0.001469744,0.001226236,0.001060999,0.001304507,0.001034909,0.001043605,0.001060999,0.000843581,0.001008818,0.000843581,0.000547893,0.000974032,0.000469622,0.000556589,0.001008818,0.000826188,0.000860974,0.000573983,0.001017515,0.000904458,0.000817491,0.000913155,0.000826188,0.001078392,0.001495834,0.000852278,0.000878368,0.000504409,0.000460926,0.000400049,0.001069695,0.000904458,0.00068704,0.000956638,0.000947941,0.000878368,0.001313203,0.001313203,0.001069695,0.001121876,0.0013219,0.001052302,0.001130572,0.001147966,0.000869671,0.000730524,0.000747917,0.001121876,0.001139269,0.00063486,0.000600073,0.000652253,0.000617466,0.000704434,0.000504409,0.000930548,0.000730524,0.000652253,0.000617466,0.000469622,0.000286991,0.000113057,8.7E-06,0,1.74E-05,1.74E-05,2.61E-05,0.000104361,0.000173934,0.000243508,0.000295688,0.000356565,0.000408745,0.000460926,0.000495713,0.000495713,0.000521803,0.000626163,0.000808794,0.000782704,0.000504409,0.000539196,0.000487016,7.83E-05,4.35E-05,0.000139147,0.000469622,0.000426139,0.000365262,0.000286991,0.000295688,0.000243508,0.000373959\nSRI-1053296-001.txt,OC(=O)CCC(=O)NC(Cc1c[nH]c2ccccc12)C(O)=O,1,0.999792397,0.987751395,0.962423771,0.921551836,0.86505774,0.793304788,0.709692487,0.620215389,0.529804074,0.445283508,0.370105099,0.305618269,0.252264175,0.209471909,0.175814195,0.149889711,0.129881926,0.114441417,0.102556118,0.093317763,0.086233294,0.080809654,0.076709485,0.073616193,0.071451927,0.07017257,0.069596471,0.0695809,0.070265992,0.071519398,0.073245102,0.07550798,0.078289866,0.081520695,0.085226418,0.089331776,0.093683664,0.098427404,0.103324251,0.108480602,0.113870507,0.119320099,0.124915012,0.130530686,0.136102245,0.141616712,0.147058518,0.15225639,0.157264824,0.161917737,0.166168418,0.170029843,0.173335928,0.17582717,0.17758661,0.178658363,0.179810562,0.181515505,0.183723887,0.185615674,0.186933956,0.187035163,0.185441806,0.18179058,0.175899831,0.168885429,0.162465291,0.158572726,0.157135072,0.155733749,0.151101596,0.141069158,0.126381212,0.109435578,0.093024523,0.078103023,0.065112236,0.054251979,0.045031789,0.037197353,0.030522901,0.024876087,0.02029324,0.016307253,0.013024523,0.010458025,0.008343065,0.006562865,0.005210847,0.004133904,0.003332036,0.002654729,0.00209939,0.001852861,0.001528481,0.001370183,0.001089918,0.000978331,0.000835604,0.000799273,0.00061243,0.000402232,0.00030362,0.000311405,0.000352926,0.000129752,0.000132347,0.000173868,0.000166083,0.000121967,0,2.08E-05,3.89E-05,3.63E-05,0.000101207,6.75E-05,0.000119372,0,3.11E-05,4.93E-05,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,2.08E-05,4.41E-05,6.23E-05,5.19E-05,3.63E-05,1.56E-05,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,7.79E-06,0,0,0,0,0,0,0,0.000106397,0,0\nSRI-1052981-001.txt,NC1=C(C(=O)CN1c1ccc(Oc2ccccc2)cc1)c1nc2ccccc2s1,0.695916389,0.685438877,0.674961364,0.672341986,0.661864473,0.659245095,0.651386961,0.643528826,0.640909448,0.635670692,0.630431935,0.625193179,0.617335045,0.614715667,0.605023967,0.596641957,0.585902507,0.572805616,0.559446787,0.544516332,0.529847814,0.515703172,0.501296592,0.48715195,0.472483432,0.457291039,0.446289651,0.436336014,0.428739817,0.421667496,0.414071299,0.403069911,0.388401394,0.373261388,0.356942662,0.343164733,0.333682584,0.330879849,0.330879849,0.329386804,0.320507112,0.303900254,0.280771145,0.255310789,0.23487964,0.220237316,0.211881499,0.209916966,0.212745894,0.220708804,0.229693271,0.241297116,0.254184457,0.268905362,0.284019174,0.299892605,0.316499463,0.335306598,0.354139927,0.373235194,0.390889803,0.408334861,0.428425492,0.446499201,0.466406475,0.485449354,0.503156351,0.522068261,0.538622731,0.553003117,0.562799591,0.569898106,0.578856379,0.58820756,0.599261335,0.612279645,0.627026744,0.642847788,0.657175786,0.667365168,0.673625481,0.675092333,0.671765723,0.668779632,0.669801189,0.674254132,0.681745554,0.692668361,0.70665584,0.721141001,0.736962045,0.755402467,0.774104828,0.793462032,0.813290725,0.834507688,0.857872541,0.879482411,0.903502109,0.925426304,0.94742908,0.96613144,0.981795322,0.992849098,0.999057024,1,0.997983079,0.993189617,0.986641171,0.976975666,0.965398015,0.953794169,0.943840532,0.933677345,0.92034471,0.903109202,0.8812112,0.854441156,0.820284464,0.778191057,0.7257773,0.669984546,0.610472274,0.545983184,0.483877727,0.422505697,0.364198339,0.311810776,0.262776017,0.22186133,0.184744742,0.154019436,0.126646934,0.104434607,0.087461037,0.070618435,0.059171753,0.04730597,0.03955261,0.033423265,0.026927207,0.023705372,0.020247793,0.018178484,0.015847238,0.014485161,0.013568379,0.012913534,0.011839589,0.010189381,0.008617754,0.007229484,0.006286508,0.005657857,0.005343531,0.005186369,0.005029206,0.004819656,0.004583912,0.004321974,0.003955261,0.003509967,0.003012285,0.00235744,0.001676402,0.001073945,0.000130969,0,0.001781177,0.001283495,0.000812007,0.000812007,7.86E-05,0.000183356,0.000445294,0.000654845,0.000445294,0.000602457,0.000104775,0.000681038,0.00075962\nSRI-0000562.txt,O=C(NC1=NC2=CC=CN=C2N1)OCC1=CC=CC=C1,0.656279356,0.589550063,0.528327557,0.474879337,0.425642188,0.379320398,0.333646464,0.289916102,0.249748955,0.213468951,0.185611091,0.162288232,0.141556801,0.126332156,0.11629037,0.10916394,0.103981083,0.100093939,0.096854653,0.093291439,0.092319653,0.091995724,0.091023938,0.09070001,0.092319653,0.093680153,0.095267403,0.097632082,0.100677011,0.103689547,0.105697904,0.108645654,0.11052444,0.110103333,0.110945548,0.110427262,0.108807619,0.107479512,0.104013475,0.100450261,0.094619546,0.090376081,0.086359366,0.08107933,0.077062615,0.074309222,0.074114865,0.071685401,0.071199508,0.072981115,0.076414758,0.080496259,0.086165009,0.094133653,0.102167082,0.112662369,0.123935085,0.138187943,0.151566195,0.167665447,0.18434777,0.203815879,0.22364031,0.244436526,0.268925529,0.29215121,0.317482427,0.344757216,0.372906611,0.401574293,0.432541868,0.464319264,0.497198018,0.530109164,0.563603382,0.595575135,0.631693175,0.665155,0.698422468,0.731301221,0.762949046,0.79605455,0.82686016,0.855786985,0.885296881,0.909559133,0.934015743,0.954002138,0.96964789,0.983188105,0.992322892,0.998477536,1,0.9968255,0.988856856,0.975510997,0.95934696,0.937805708,0.910790062,0.878008487,0.838715947,0.795795407,0.744323151,0.691101681,0.630462246,0.564899096,0.500113375,0.434615011,0.368177254,0.306371676,0.252048848,0.202941272,0.16170516,0.126591299,0.101000939,0.077418937,0.059570471,0.046451362,0.037316575,0.031647825,0.026918467,0.023225681,0.01778368,0.016034466,0.014576787,0.013540216,0.013054323,0.011596644,0.010365715,0.010365715,0.009458715,0.008908037,0.007385572,0.007482751,0.005603965,0.006251822,0.005830715,0.006025072,0.005344822,0.003466036,0.003789965,0.004470215,0.004729358,0.003368858,0.004373036,0.004761751,0.004502608,0.004437822,0.004211072,0.003660393,0.003012536,0.002526643,0.002137929,0.001846393,0.001684429,0.001619643,0.00158725,0.001490072,0.001425286,0.001328107,0.001263322,0.001198536,0.00113375,0.001101357,0.00113375,0.001230929,0.000647857,0.000615464,0.0004535,0.001878786,0.00340125,0.001878786,0.002137929,0.002137929,0.001943572,0.001230929,0.001943572,0.002915357,0.001684429,0,0.000583071\nSRI-1053357-001.txt,COc1ccc(cc1)S(=O)(=O)N[C@@H](CO)C(O)=O,0.206951046,0.227621514,0.251536765,0.279117419,0.31018321,0.34593591,0.384753126,0.426454594,0.471460933,0.518209841,0.567602646,0.618077046,0.668611533,0.719085933,0.768238383,0.815347823,0.859092302,0.898810847,0.932941155,0.961723581,0.982934846,0.995853889,1,0.994513914,0.979641992,0.954873484,0.921548362,0.878663149,0.828591344,0.77056982,0.706755758,0.640177622,0.572980573,0.507399907,0.446205707,0.390828081,0.341495364,0.299799905,0.264455808,0.235378949,0.211686025,0.192986462,0.177904231,0.16460663,0.152949447,0.141923195,0.132182838,0.123926668,0.117389031,0.111626538,0.10683147,0.101447534,0.094819764,0.08732672,0.078607868,0.069690724,0.061638856,0.055029113,0.050438346,0.047950679,0.045547136,0.042182177,0.036954471,0.030068321,0.023218224,0.017473756,0.012852945,0.009241622,0.006699876,0.005119546,0.004188173,0.003082544,0.002884251,0.00236749,0.002067047,0.002012967,0.001676471,0.001514232,0.001520241,0.001279887,0.001291904,0.00120778,0.001171727,0.001087603,0.000967426,0.000913346,0.000811196,0.000751107,0.000733081,0.000672992,0.000624921,0.000588868,0.000528779,0.000679001,0.000660974,0.000498735,0.000654965,0.000691019,0.000781151,0.000468691,0.000660974,0.000486717,0.000402593,0.000564833,0.000624921,0.000540797,0.000318469,0.000666983,0.000378558,0.000763125,0.000636939,0.000558824,0.000660974,0.000468691,0.000504744,0.000570841,0.000492726,0.000522771,0.000570841,0.000552815,0.000492726,0.000594877,0.000835231,0.000534788,0.000528779,0.000606895,0.000588868,0.00063093,0.000612903,0.000709045,0.000372549,0.000498735,0.000666983,0.000666983,0.000486717,0.000336496,0.000402593,0.000402593,0.000534788,0.000642948,0.000378558,0.000600886,0.00057685,0.000282416,0.000390576,0.0004747,0.000432638,0.000426629,0.000444655,0.00036654,0.00026439,0.000192283,0.000108159,8.41E-05,0.000114168,0.000126186,0.000138204,0.00015623,0.000186275,0.000204301,0.000216319,0.000228337,0.000240354,0.000228337,0.000222328,0.000276407,0.000198292,9.61E-05,0,3E-05,6.01E-06,0.000378558,0.000402593,0.00026439,0.000216319,0.000216319,0.000222328,0.00021031,0.000282416,0.000408602,0.000228337\nSRI-1053021-001.txt,C[C@H](NC(=O)N1CCN(CC1)C(=O)CCCc1c[nH]c2ccccc12)C(O)=O,0.997778934,1,0.994348932,0.979307533,0.952963999,0.912281935,0.856699046,0.786130987,0.702939399,0.611988136,0.52019343,0.43421848,0.356706074,0.290861296,0.236712259,0.193359293,0.159818379,0.134121484,0.114356804,0.09934352,0.0880695,0.079522611,0.072859412,0.067854984,0.064143835,0.061501047,0.059589243,0.058520882,0.058026062,0.058186317,0.058872317,0.060126235,0.061785006,0.063873933,0.066409885,0.06923823,0.072505166,0.07614884,0.080152382,0.084231834,0.088567131,0.093169518,0.097920913,0.10277071,0.107665491,0.112661484,0.117612494,0.122493217,0.127371129,0.132063483,0.136432518,0.140621617,0.144535193,0.148102956,0.150866638,0.153197352,0.154712737,0.155949787,0.157318976,0.159199854,0.161252232,0.163040331,0.164136806,0.163984987,0.162284043,0.158814682,0.153596581,0.148032669,0.143326258,0.14087465,0.139797855,0.138021002,0.133058746,0.124031095,0.111441303,0.097524495,0.084248703,0.071985043,0.061498236,0.052211929,0.044193598,0.037117112,0.031024643,0.025651911,0.021139491,0.017349621,0.014018022,0.011468012,0.009258192,0.007441978,0.005974387,0.004748584,0.003947313,0.003266936,0.002625919,0.00228573,0.001844329,0.001506951,0.001329828,0.001222992,0.001118968,0.001045869,0.000896861,0.000806894,0.000854689,0.000792836,0.000759099,0.000629771,0.000708492,0.000660697,0.000553861,0.000556672,0.000598844,0.00057073,0.000680377,0.000542615,0.000652263,0.000492008,0.000531369,0.00043859,0.000469517,0.000458271,0.000427344,0.000508877,0.000463894,0.00047514,0.000413287,0.000432967,0.000373926,0.000261467,0.000292394,0.000396418,0.000354246,0.000250221,0.000210861,0.00032332,0.000222107,0.000236164,0.000300828,0.000340189,0.000143385,0.000120893,0.000112459,1.97E-05,0.000149008,0.000134951,0.000157443,0.000163066,0.000143385,0.000154631,0.000168689,0.000168689,0.000157443,0.000140574,0.000123705,0.000109648,0.000104025,9.28E-05,7.59E-05,6.19E-05,5.62E-05,5.34E-05,5.06E-05,6.47E-05,7.31E-05,7.31E-05,1.97E-05,1.97E-05,5.06E-05,0.000233353,0.000123705,0.000182746,0.000134951,0.000120893,0,3.65E-05,0.000123705,1.41E-05,8.72E-05,9E-05,7.31E-05\nSRI-1053031-001.txt,O=C(C[C@@H]1NC(=O)N(CCc2c[nH]c3ccccc23)C1=O)NC1CCCCC1,0.985976039,0.997603946,1,0.989429175,0.966173362,0.926849894,0.869274137,0.796194503,0.709161381,0.614235377,0.518675123,0.429527837,0.350458069,0.285200846,0.233403805,0.193868922,0.163777308,0.142001409,0.125651868,0.1136716,0.104862579,0.097885835,0.092882311,0.088794926,0.085976039,0.083791402,0.082170543,0.08111346,0.080690627,0.080909091,0.081338971,0.082473573,0.083629316,0.085236082,0.087167019,0.089760395,0.092600423,0.095602537,0.098414376,0.101895701,0.105426357,0.108964059,0.113178295,0.116849894,0.120627202,0.12453136,0.128513037,0.132128259,0.13551797,0.138999295,0.142255109,0.145123326,0.147977449,0.15012685,0.151719521,0.153474278,0.153840733,0.154016913,0.154756871,0.155940803,0.157293869,0.158435518,0.158844257,0.15812544,0.155905567,0.151649049,0.146208598,0.139774489,0.135236082,0.132917548,0.131909796,0.130281889,0.125665962,0.116969697,0.104207188,0.090641297,0.07744186,0.065673009,0.055658915,0.046462297,0.038949965,0.032290345,0.026730092,0.022057787,0.017653277,0.014397463,0.011571529,0.009231853,0.007378436,0.005933756,0.004918957,0.004045102,0.003262861,0.002832981,0.002339676,0.001980268,0.001529246,0.001423538,0.001183932,0.001155743,0.000845666,0.000887949,0.000880902,0.001092319,0.001035941,0.001028894,0.001000705,0.000627202,0.000852713,0.000641297,0.000500352,0.000570825,0.000204369,0.000317125,0.000535588,0.000521494,0.000422833,0.000443975,0.000465116,0.000669486,0.000472163,0.000232558,0.000352361,0.000415786,0.00030303,0.000486258,0.000401691,0.000211416,0.000472163,0.000577872,0.000542636,0.000458069,0.000310078,0.000260747,0.000324172,0.00030303,0.000155039,6.34E-05,0.00012685,0.00042988,0.000599013,8.46E-05,0.000331219,0.000465116,0.000331219,0.000331219,0.000359408,0.000338266,0.000324172,0.000225511,0.000133897,6.34E-05,3.52E-05,4.23E-05,6.34E-05,9.16E-05,0.000105708,0.000112755,0.000112755,0.000105708,0.000119803,0.000147992,0.000162086,0.000133897,9.87E-05,0.000112755,0.000133897,0.000331219,0.00038055,0.000211416,0.00012685,0.000140944,0.000218464,0,3.52E-05,0.000183228,0.000232558,0.000155039,0.000133897,0.000119803,0.000324172\nSRI-1053149-001.txt,CN1C(=O)Cc2cc(ccc12)C(=O)CCN1C(=O)c2ccccc2C1=O,1,0.990749894,0.970515289,0.941608709,0.902295761,0.85142018,0.788692902,0.718334287,0.643466246,0.567731007,0.495175492,0.429615369,0.371397518,0.322198519,0.282307439,0.250510201,0.225708356,0.207092518,0.193968931,0.184950078,0.180093773,0.178185939,0.17876407,0.181365662,0.185759463,0.191656405,0.199056489,0.207497211,0.217498887,0.22888808,0.241404629,0.254666967,0.269039319,0.284064959,0.299350758,0.315405473,0.332651138,0.35009915,0.368269826,0.387088009,0.406125882,0.425175318,0.443814281,0.461661203,0.478137954,0.493441097,0.507657353,0.521364853,0.534205156,0.546802643,0.558943407,0.570442444,0.579935365,0.587659203,0.592613791,0.593440519,0.592012534,0.587740141,0.581947263,0.575310312,0.568546172,0.561799377,0.554144914,0.545727318,0.536407837,0.525186303,0.512548346,0.499523041,0.48726087,0.475842771,0.463638413,0.44762995,0.426539709,0.400101751,0.370403131,0.34096467,0.312237311,0.286232952,0.262413931,0.240121176,0.218423898,0.197015685,0.17582138,0.155164739,0.135068884,0.115811321,0.098236121,0.082580317,0.068468125,0.056471894,0.046389279,0.037861838,0.031068792,0.025784669,0.021361962,0.017690827,0.014962046,0.01252233,0.010909343,0.009169167,0.007943528,0.007064768,0.006116632,0.005376624,0.004532552,0.003913951,0.003549728,0.003335819,0.002954252,0.00263628,0.002405027,0.002006117,0.001873146,0.001936741,0.001902053,0.001797989,0.001127357,0.001260327,0.00131814,0.001179388,0.000988605,0.001115794,0.000844072,0.000884541,0.000815166,0.000820947,0.000832509,0.000601257,0.000607038,0.0005261,0.000699539,0.000549225,0.000815166,0.000578132,0.000520318,0.000705321,0.000919229,0.000127189,0.000329535,0.000427817,0.000474068,0.000323754,0.000422036,0.000670633,0.000537662,0.000520318,0.000479849,0.000387348,0.000294847,0.00021969,0.000167658,0.000121408,9.25E-05,7.52E-05,5.2E-05,5.2E-05,6.94E-05,8.09E-05,9.25E-05,9.83E-05,0.000109845,0.000115626,0.000121408,0.000138752,0.000179221,0.000231253,0.000231253,0.000231253,0.000185002,0.000190783,6.94E-05,0.000161877,5.2E-05,0.000346879,4.63E-05,0,0.000109845,0.000213909,0.000381567,0.000167658,6.94E-05\nSRI-0000588.txt,[O-][N+](=O)C1=CC=C(O1)C(=O)NC1=NNC=N1,1,0.975457571,0.956114809,0.932196339,0.910565724,0.87687188,0.835274542,0.799292845,0.766222962,0.737520799,0.698211314,0.659317804,0.640806988,0.596297837,0.545757072,0.517678869,0.498336106,0.472753744,0.445923461,0.417637271,0.40203827,0.387687188,0.37250416,0.358569052,0.344425957,0.332986689,0.330490849,0.321755408,0.31593178,0.305324459,0.304492512,0.301580699,0.293261231,0.288477537,0.289309484,0.277454243,0.27828619,0.270590682,0.263935108,0.257487521,0.256447587,0.248544093,0.24937604,0.24625624,0.24625624,0.241888519,0.244176373,0.238352745,0.244176373,0.250207987,0.247296173,0.250415973,0.25124792,0.252287854,0.261647255,0.276622296,0.281613977,0.283693844,0.299708819,0.308236273,0.31218802,0.315099834,0.333194676,0.343178037,0.349833611,0.361688852,0.373960067,0.387271215,0.40328619,0.403078203,0.414101498,0.422420965,0.441763727,0.457986689,0.474417637,0.482113145,0.490432612,0.503951747,0.521006656,0.520798669,0.53514975,0.549708819,0.563227953,0.564475874,0.583402662,0.588810316,0.59234609,0.605657238,0.612520799,0.616680532,0.619592346,0.618760399,0.622088186,0.624792013,0.628951747,0.62874376,0.631447587,0.628951747,0.626455907,0.622296173,0.616472546,0.607321131,0.599625624,0.597753744,0.587770383,0.569883527,0.55844426,0.546173045,0.536189684,0.52953411,0.517470882,0.50187188,0.487936772,0.468386023,0.449251248,0.437396007,0.417637271,0.399958403,0.386023295,0.368344426,0.354409318,0.339434276,0.328826955,0.307196339,0.293469218,0.266846922,0.252079867,0.243968386,0.230449251,0.214642263,0.203618968,0.194675541,0.176372712,0.173460899,0.16077371,0.143302829,0.140599002,0.132071547,0.12624792,0.112312812,0.104617304,0.095049917,0.08985025,0.082986689,0.078202995,0.068635607,0.0640599,0.064267887,0.061772047,0.055324459,0.049292845,0.043885191,0.040141431,0.036813644,0.034733777,0.03265391,0.031198003,0.029742097,0.028078203,0.026414309,0.024750416,0.022670549,0.019758735,0.015806988,0.012063228,0.011023295,0.014559068,0.006239601,0.00374376,0.006655574,0.012479201,0.009567388,0.008527454,0,0.006655574,0.000415973,0,0.004575707,0.003951747,0.006239601,0.0031198\nSRI-1052965-001.txt,COc1ccc2n(CCC(=O)N[C@@H](Cc3c[nH]c4ccccc34)C(O)=O)ccc2c1,0.994516568,1,0.996791046,0.984448915,0.965741771,0.935803288,0.895021361,0.844118886,0.785458501,0.720609419,0.653221384,0.587296774,0.523505588,0.463417042,0.408071401,0.358173929,0.313654099,0.274688229,0.241170528,0.212184152,0.188293313,0.168334324,0.151954553,0.138431104,0.12769345,0.119265537,0.112777103,0.108263409,0.105424719,0.103873137,0.10350111,0.104257506,0.106119405,0.109280754,0.113387157,0.118466825,0.124382232,0.131043457,0.138402893,0.146280699,0.154717427,0.163557919,0.172833912,0.182325011,0.191955399,0.20172684,0.21107336,0.220273537,0.228812528,0.236960098,0.24419435,0.250709232,0.256282585,0.261200043,0.26516892,0.267693767,0.269197744,0.269825429,0.269522166,0.268439584,0.266285001,0.262857415,0.257987563,0.251705418,0.244247245,0.235112305,0.225448416,0.216295844,0.209458304,0.205237295,0.202493816,0.198588413,0.191742057,0.181591535,0.169358721,0.157263432,0.146220751,0.136791363,0.129044031,0.122529149,0.116719532,0.111417705,0.1064738,0.101796133,0.097213676,0.092765219,0.08847721,0.084495991,0.080715773,0.077510345,0.074682234,0.071787123,0.068576406,0.064619871,0.059582519,0.053723533,0.047217467,0.040517453,0.034014913,0.027979611,0.022630179,0.018010695,0.014089424,0.010864602,0.008306254,0.006248645,0.004719983,0.003722034,0.002925085,0.002346768,0.001955346,0.001662661,0.001449319,0.001262424,0.001214818,0.001181318,0.001036739,0.001003239,0.000945055,0.000879818,0.000823396,0.000932712,0.000983844,0.000939765,0.000846318,0.000805765,0.000881581,0.000913318,0.000807528,0.000812817,0.000862186,0.000865712,0.000934476,0.000828686,0.000782844,0.000793423,0.000775791,0.000779317,0.000805765,0.000839265,0.000841028,0.00079166,0.000735238,0.000733475,0.000721133,0.000692922,0.000675291,0.000671765,0.000661186,0.000636501,0.000610054,0.00058008,0.00055187,0.000532475,0.00051308,0.000490159,0.000469001,0.000442554,0.000414343,0.000384369,0.000352632,0.000317369,0.000275053,0.000230974,0.000181606,0.000149869,0.000155158,0.000174553,0.000183369,6.52E-05,3.17E-05,5.99E-05,9.7E-05,9.34E-05,0.000137527,0,0.000134,0.000134,6.88E-05,9.52E-05,0.000137527\nSRI-0000563.txt,COC(=O)NC1=NC2=CC(Br)=CN=C2N1,1,0.937759336,0.878630705,0.817427386,0.760373444,0.703319502,0.648340249,0.590248963,0.538381743,0.491701245,0.443983402,0.398340249,0.362033195,0.32780083,0.297717842,0.272821577,0.256224066,0.239626556,0.229253112,0.220954357,0.210580913,0.206431535,0.20746888,0.206431535,0.208506224,0.207676349,0.206742739,0.204771784,0.202074689,0.198962656,0.191701245,0.185684647,0.176348548,0.162551867,0.152697095,0.137759336,0.127593361,0.117012448,0.108195021,0.094190871,0.088692946,0.07780083,0.066804979,0.06120332,0.045746888,0.045228216,0.038070539,0.033195021,0.028008299,0.025311203,0.026141079,0.027593361,0.031224066,0.0343361,0.04159751,0.046887967,0.059439834,0.065041494,0.075103734,0.089315353,0.096784232,0.109128631,0.124792531,0.137759336,0.151970954,0.172925311,0.193775934,0.20840249,0.234024896,0.2593361,0.280705394,0.310580913,0.338485477,0.362240664,0.393360996,0.419087137,0.446991701,0.476037344,0.502385892,0.525518672,0.550103734,0.571887967,0.59346473,0.611618257,0.621058091,0.632261411,0.632261411,0.632780083,0.633921162,0.626970954,0.610062241,0.593775934,0.575103734,0.549377593,0.517427386,0.484128631,0.448236515,0.4093361,0.366493776,0.328215768,0.2843361,0.248443983,0.216286307,0.179875519,0.144709544,0.116286307,0.095746888,0.07873444,0.068983402,0.053319502,0.049273859,0.040871369,0.03340249,0.033298755,0.031120332,0.026037344,0.019813278,0.021473029,0.022095436,0.019087137,0.015767635,0.007987552,0.011618257,0.012240664,0.004771784,0.001659751,0.007883817,0.009751037,0,0.001348548,0.003319502,0.00466805,0.002074689,0.004979253,0.00466805,0.008609959,0.011618257,0.0156639,0.021784232,0.01846473,0.017634855,0.021784232,0.025103734,0.02780083,0.029045643,0.034024896,0.035892116,0.036825726,0.038278008,0.041182573,0.045020747,0.048029046,0.050103734,0.051244813,0.051659751,0.052178423,0.052489627,0.052489627,0.052489627,0.052489627,0.052282158,0.052178423,0.05186722,0.051659751,0.05186722,0.051970954,0.050518672,0.047925311,0.046058091,0.047821577,0.04346473,0.035477178,0.039004149,0.037551867,0.033609959,0.031224066,0.025518672,0.01939834,0.021058091,0.018049793,0.009024896\nSRI-1052975-001.txt,CC(C)[C@H](NC(=O)c1sc(nc1C)-c1ccc(OC(F)(F)F)cc1)C(O)=O,0.727837681,0.715173499,0.701604733,0.688940551,0.675371784,0.660898433,0.644615913,0.627428809,0.610241705,0.588531679,0.564107899,0.538689076,0.511008793,0.482243008,0.455195933,0.428329775,0.40363462,0.381291385,0.359671817,0.339409125,0.320322394,0.302592539,0.286129102,0.270117958,0.254649564,0.239814379,0.225341028,0.211139053,0.198836704,0.189067193,0.182011434,0.177723704,0.175579839,0.175842168,0.1782755,0.183160256,0.189664218,0.197787386,0.207647357,0.219108442,0.231247965,0.245875095,0.26114448,0.277653146,0.297101711,0.317889062,0.340123747,0.362955458,0.386872671,0.41225531,0.437873141,0.464730253,0.492220574,0.520136049,0.548377176,0.576998227,0.605492637,0.63424033,0.662535731,0.691084416,0.719081304,0.746526396,0.773645837,0.800475811,0.82564135,0.849404783,0.87239932,0.894597822,0.915168072,0.933368311,0.950085031,0.964947353,0.977367297,0.98661215,0.994373485,0.999240149,1,0.999981908,0.997973731,0.993459855,0.986630242,0.97675218,0.963599522,0.946692839,0.926737707,0.903082824,0.87642472,0.846618663,0.814189311,0.780158845,0.744599631,0.708841408,0.673472157,0.637921989,0.603466368,0.568866013,0.533867641,0.497955639,0.461455657,0.424503383,0.386474654,0.34754134,0.309042226,0.270172233,0.232197778,0.196349097,0.163376995,0.133263379,0.10703043,0.085121395,0.067346311,0.052909144,0.040950537,0.032067518,0.024785613,0.019620436,0.015866411,0.013089337,0.01066505,0.009507182,0.009072982,0.007435684,0.006395412,0.005119948,0.004106813,0.003690704,0.003229366,0.002804212,0.00208959,0.002143865,0.002288599,0.001809169,0.00176394,0.001836306,0.001601114,0.002261461,0.001971994,0.001673481,0.001456381,0.001999132,0.002053407,0.002080544,0.001836306,0.001971994,0.002062453,0.001990086,0.001908673,0.001890581,0.001926765,0.00198104,0.002008177,0.002044361,0.002053407,0.002062453,0.002062453,0.002053407,0.002044361,0.002008177,0.001999132,0.001971994,0.001944857,0.001908673,0.001863444,0.001827261,0.001836306,0.00171871,0.001402106,0.001619206,0.001384014,0.001456381,0.001637298,0.000985997,0.001302602,0.001031226,0.001121685,0.000687484,0.000578934,0.000560842,0.000452292,0.000651301,0\nSRI-1053262-001.txt,COc1ccc(cc1OC)S(=O)(=O)N1CCCC1C(O)=O,1,0.870360831,0.75261854,0.649900655,0.563494984,0.493401526,0.438577771,0.399085044,0.37320627,0.35873378,0.354686389,0.359224373,0.370569333,0.388537297,0.410920598,0.438209827,0.467706724,0.501251012,0.537677533,0.575698482,0.61506856,0.653764074,0.692582236,0.730173915,0.765189982,0.797201168,0.824938063,0.84787328,0.865620477,0.875469129,0.87905659,0.874469546,0.862284446,0.842127211,0.814488434,0.779650207,0.737814899,0.689785856,0.63714524,0.581787966,0.526216057,0.472342826,0.422234896,0.377995683,0.340066721,0.309196164,0.285249099,0.267863713,0.256475826,0.250091986,0.247945642,0.249405156,0.253581328,0.259738269,0.267465107,0.276479751,0.286641156,0.298090367,0.309852332,0.321277013,0.331272843,0.338926092,0.343096132,0.343850418,0.340925258,0.336166507,0.329819462,0.32322712,0.316242304,0.306546962,0.290866387,0.265508867,0.231437192,0.192514779,0.152917801,0.116883754,0.086552849,0.062759094,0.045177472,0.032231952,0.022873893,0.016851865,0.012362941,0.009431648,0.007481541,0.005807393,0.004734221,0.004041259,0.003440283,0.002845439,0.002551083,0.002434567,0.002226065,0.001888783,0.00137366,0.001588294,0.001913312,0.001539235,0.001244879,0.001208085,0.001054775,0.001140628,0.00122035,0.000803346,0.000803346,0.000791081,0.00106704,0.000999583,0.000846273,0.000876935,0.001085437,0.000883067,0.001109966,0.000876935,0.000821743,0.000515123,0.000594844,0.000619374,0.000999583,0.000858538,0.000650036,0.000981186,0.000717492,0.0008892,0.001152893,0.000784949,0.000527387,0.000925994,0.000827875,0.000692962,0.000821743,0.000883067,0.001097702,0.000674565,0.000754287,0.000907597,0.000932126,0.000521255,0.000600976,0.000729757,0.000582579,0.000570314,0.00050899,0.000453798,0.000521255,0.000594844,0.000551917,0.000478328,0.000392474,0.000275958,0.000208502,0.000183972,0.000159443,0.000141045,0.000147178,0.000183972,0.000214634,0.000245296,0.000275958,0.000312753,0.000337283,0.000374077,0.000398607,0.000404739,0.000410872,0.000453798,0.000558049,0.000748154,0.000423136,0,0.000208502,0.000300488,0.000306621,0.000398607,0.000821743,0.000441534,0.000398607,0.000306621,0.000447666,0.000275958,0.000472196\nSRI-1052778-001.txt,CC(Oc1cc(C)cc2oc(=O)c3CCCc3c12)C(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(O)=O,1,0.998242941,0.989949622,0.974487501,0.950591496,0.917980478,0.872718634,0.816436515,0.750820898,0.679090715,0.609848527,0.546706849,0.491493022,0.445022322,0.407393143,0.377635589,0.354821933,0.337897939,0.32593588,0.317628504,0.312666569,0.310094235,0.309011886,0.308435571,0.307929538,0.307072093,0.305638333,0.303670426,0.301955537,0.3012246,0.301476211,0.302323816,0.302867802,0.30187682,0.29779482,0.289536642,0.277183814,0.262463875,0.247374251,0.234627841,0.225867847,0.221731027,0.222033241,0.225883309,0.232808933,0.24202998,0.252669324,0.264672147,0.277344057,0.290410955,0.303834887,0.317399384,0.330944201,0.344493236,0.357465955,0.36986517,0.38190454,0.393643101,0.405845525,0.418707198,0.431774096,0.44439962,0.456149426,0.466492179,0.474611198,0.480319532,0.48388847,0.486952781,0.491719332,0.498886727,0.507286876,0.513482969,0.514797249,0.510855814,0.503488817,0.495322006,0.488005611,0.482513747,0.478216683,0.474904978,0.471996694,0.469105277,0.466483745,0.463621847,0.460463358,0.457018116,0.453755609,0.449866182,0.445847437,0.441605193,0.436599683,0.431040348,0.424689633,0.417322635,0.408548585,0.39878777,0.387799825,0.375760455,0.363127903,0.35003992,0.336752336,0.323322782,0.310198252,0.297013281,0.284197994,0.271070653,0.257858974,0.244270581,0.230084789,0.215211634,0.199735457,0.18387835,0.167658585,0.1514585,0.135643562,0.120556749,0.106368145,0.093271728,0.081375735,0.070642212,0.061154093,0.052811576,0.045474097,0.039178202,0.033698989,0.028895892,0.024813892,0.021416443,0.018384461,0.015852891,0.013779561,0.012011256,0.010380706,0.00909735,0.007874436,0.006844097,0.005966973,0.005233225,0.004534618,0.003979388,0.003463515,0.002991218,0.002593419,0.002258875,0.001965095,0.001730352,0.001602438,0.001554646,0.00147593,0.00129179,0.001079537,0.000896803,0.000764672,0.000678928,0.000621296,0.000576315,0.000534146,0.000494788,0.000449807,0.000407638,0.000364063,0.000314865,0.000260045,0.000212253,0.000182734,0.000179923,0.000168678,0.000132131,0.000127914,0.000186951,8.86E-05,0.000137753,8.72E-05,0.000104018,8.15E-05,0.000106829,0.000165866,9.56E-05,0,9E-05,0.000102612\nSRI-0000007.txt,CN(C)CC1=CNC2=CC=C(C=C12)[N+]([O-])=O,0.412611178,0.399813383,0.39005453,0.38230737,0.376957121,0.37306214,0.371521268,0.370622427,0.37199209,0.37477422,0.378583597,0.384447469,0.391809411,0.401782275,0.413895238,0.428233904,0.445868324,0.465899655,0.488554748,0.513367061,0.540580566,0.569026768,0.599270654,0.630653073,0.662549115,0.695408203,0.728370015,0.761430271,0.793536044,0.824469041,0.853172055,0.879623685,0.902920808,0.923500004,0.9406208,0.955100713,0.967226517,0.977528956,0.986247721,0.992736502,0.997401919,1,0.999875874,0.997183629,0.991144268,0.980957395,0.965728447,0.943111876,0.912290163,0.871923607,0.822517271,0.76526961,0.701135109,0.633948826,0.566368765,0.500937364,0.440227022,0.384768484,0.336192506,0.294695977,0.259829477,0.231122183,0.207713775,0.188996465,0.174610716,0.163332392,0.155208574,0.149665716,0.145882021,0.144388231,0.145090184,0.147410052,0.15145912,0.157117543,0.164406722,0.172911477,0.182601847,0.193482113,0.205282622,0.217596754,0.230522955,0.244112586,0.257663696,0.271454497,0.285185375,0.29906178,0.312552967,0.325581893,0.338512374,0.350753743,0.362802503,0.374050866,0.384909731,0.394985319,0.404611486,0.413351653,0.421364185,0.428880214,0.435206348,0.44104454,0.446086614,0.450443857,0.454150509,0.456692947,0.458948612,0.460326836,0.461105832,0.46084046,0.460502324,0.459248226,0.457262214,0.455173476,0.451715076,0.448470685,0.44427181,0.439525069,0.434936696,0.429402399,0.424407406,0.418398007,0.412101834,0.405437565,0.398914542,0.391860774,0.384169256,0.376537661,0.368512288,0.360319988,0.352251813,0.344508933,0.33714271,0.32939127,0.321472902,0.313297722,0.304989856,0.296733352,0.288425486,0.279954972,0.271608584,0.262966863,0.254385064,0.246025835,0.237225746,0.228434218,0.219758254,0.211514591,0.205732042,0.202393487,0.197531181,0.187429912,0.175415393,0.164261195,0.155610913,0.149323301,0.144448154,0.140090911,0.135682307,0.130828561,0.125469752,0.119498874,0.112761841,0.105083164,0.096081906,0.085869351,0.075138892,0.065992107,0.059212272,0.053648014,0.048216441,0.043067362,0.038538911,0.033980499,0.02947773,0.024773791,0.020788926,0.017146477,0.013311419,0.009733172,0.006266211,0.003120265,0\nSRI-1053104-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NS(=O)(=O)c1ccc(F)cc1,1,0.994978004,0.978706736,0.950985316,0.912014624,0.860288062,0.797713987,0.72539724,0.649313995,0.571372612,0.496795966,0.429651875,0.370643418,0.319167956,0.275978787,0.240222173,0.210039975,0.185181093,0.164339808,0.147114361,0.133102991,0.121703059,0.112362146,0.104628272,0.098652096,0.0938812,0.090265362,0.087553484,0.085896225,0.084841606,0.084284165,0.084495088,0.085363894,0.086413491,0.088266608,0.090265362,0.092741206,0.095156787,0.098079589,0.101414194,0.105060164,0.108565517,0.112301882,0.115681686,0.119056467,0.122391073,0.125891404,0.129507242,0.132841847,0.135925353,0.138752737,0.141354131,0.143829975,0.145843796,0.147390571,0.148289508,0.148656114,0.149183423,0.149951789,0.15111187,0.152598381,0.153723308,0.154310882,0.153371768,0.151302706,0.147134449,0.141645407,0.135865089,0.131777184,0.130114903,0.129391736,0.127182057,0.121155662,0.110835459,0.097702939,0.084103373,0.071357546,0.060294088,0.051033527,0.042973223,0.03614833,0.030503606,0.02528073,0.021298286,0.017813021,0.014684317,0.012198429,0.010234829,0.00857757,0.007166389,0.006106748,0.00533336,0.00483116,0.004248609,0.003866937,0.003535485,0.00306844,0.003033286,0.002596372,0.002269942,0.001807919,0.001556819,0.001376027,0.001094795,0.001034531,0.001079729,0.001084751,0.001376027,0.001200257,0.000908981,0.001059641,0.001310741,0.000733211,0.000718145,0.000959201,0.000908981,0.000858761,0.001059641,0.001014443,0.001029509,0.001155059,0.001054619,0.000929069,0.000888893,0.000793475,0.000637794,0.000748277,0.000698057,0.000828629,0.000617706,0.000542376,0.00052731,0.00030132,0.000672948,0.000743255,0.000773387,0.000753299,0.000698057,0.000622728,0.000286254,0.000597618,0.000793475,0.000672948,0.000964223,0.000698057,0.000617706,0.000612684,0.000567486,0.000517266,0.000507222,0.000507222,0.000512244,0.000532332,0.00055242,0.00055242,0.000567486,0.000572508,0.00057753,0.000572508,0.000567486,0.00055242,0.000547398,0.000537354,0.000537354,0.000542376,0.000467046,0.000341496,0.000371628,0.000607662,0.000462024,0.000487134,0.000336474,0.000542376,0.00052731,0.000286254,0.000537354,0.00062775,0.000115506,0,0.000241056,0.000411804\nSRI-1053114-001.txt,OC(=O)CC1(CNC(=O)Cn2nnc3ccccc3c2=O)CCCCC1,0.993085023,0.996891753,0.999371366,1,0.998114097,0.992176995,0.981315592,0.96539019,0.944854803,0.9209667,0.894703756,0.866310441,0.83372623,0.795135069,0.748301814,0.694099569,0.634274539,0.573331936,0.51497372,0.461469957,0.41512564,0.376010617,0.343845496,0.317512704,0.296418531,0.278537378,0.26383432,0.250772696,0.238842614,0.22802312,0.218356121,0.209708907,0.202406272,0.196126914,0.190448251,0.185045489,0.179747499,0.174512372,0.169347093,0.16478251,0.16127962,0.15939721,0.15906543,0.160361115,0.163521749,0.168061886,0.173859291,0.180634571,0.188014039,0.196287565,0.20471825,0.213257199,0.222033632,0.230677353,0.239258212,0.247695881,0.255794786,0.263684146,0.271150925,0.277929698,0.283933155,0.289018108,0.293065815,0.295734018,0.297274172,0.297846928,0.29756055,0.296652522,0.294878377,0.292175249,0.288927305,0.284746887,0.279847032,0.274377914,0.268587494,0.262915815,0.25782737,0.253133567,0.249239527,0.24594269,0.242673791,0.2391255,0.234892696,0.229182601,0.222054586,0.213644857,0.204341069,0.194946479,0.186264341,0.178584525,0.172256273,0.16789425,0.165596242,0.164248171,0.163249341,0.160574153,0.155077095,0.146300662,0.134569647,0.120278695,0.105243858,0.090097264,0.075656137,0.063059004,0.05173311,0.042348997,0.03460981,0.028204725,0.023165174,0.019030157,0.015621562,0.012900973,0.010850926,0.008961531,0.007438839,0.006244434,0.005140832,0.004260744,0.003740374,0.003122217,0.002741544,0.002266576,0.001760176,0.001610002,0.001414427,0.001197898,0.001026769,0.000834687,0.000684513,0.000632127,0.000495923,0.0005064,0.000485445,0.000345749,0.000422582,0.000394643,0.000282885,0.000258439,0.000178113,0.000164143,0.000153666,0.000233992,0.00018859,0.000153666,0.00018859,0.000122234,0.000118742,0.000146681,0.000160651,0.000129219,8.73E-05,5.24E-05,3.84E-05,2.79E-05,2.1E-05,1.4E-05,1.05E-05,6.98E-06,1.05E-05,1.4E-05,1.4E-05,1.75E-05,3.14E-05,4.19E-05,5.59E-05,4.19E-05,2.44E-05,8.73E-05,1.75E-05,6.64E-05,4.54E-05,0,0.000139697,3.14E-05,0.000108265,8.38E-05,0.000129219,7.68E-05,4.89E-05,5.59E-05,0.000192083\nSRI-1053166-001.txt,CSCCC(NS(=O)(=O)c1ccc(cc1)C(C)(C)C)C(O)=O,0.824137173,0.857111453,0.890085733,0.912068587,0.923060013,0.956034293,0.978017147,0.978017147,0.989008573,1,0.994504287,0.990107716,0.979116289,0.961530007,0.940646296,0.903275445,0.846120026,0.772477468,0.682347769,0.586722357,0.49329523,0.406462959,0.322928116,0.248186415,0.195427566,0.148164432,0.114091009,0.086612442,0.063530446,0.050340734,0.04044845,0.034952737,0.030336338,0.028357881,0.026049681,0.027698395,0.025170367,0.02319191,0.025280281,0.027368652,0.023081996,0.027588481,0.032534623,0.031325566,0.031105738,0.026489338,0.02473071,0.02319191,0.025939767,0.031105738,0.031985052,0.033194109,0.03528248,0.038799736,0.045834249,0.048032535,0.049571334,0.050010991,0.055506705,0.062761046,0.070015388,0.07342273,0.079248186,0.087601671,0.089360299,0.095625412,0.107276324,0.107276324,0.116619037,0.12519235,0.132446692,0.131787206,0.135304463,0.14838426,0.150032974,0.156188173,0.166520114,0.1656408,0.163662343,0.162453286,0.1648714,0.161024401,0.162013629,0.169377885,0.169158057,0.169377885,0.165311057,0.1648714,0.163772258,0.161024401,0.155638602,0.148054517,0.138491976,0.133545834,0.135194548,0.131457463,0.131237635,0.125741921,0.118047923,0.115519894,0.112442295,0.10276984,0.098263355,0.090459442,0.0824357,0.069575731,0.057155419,0.044845021,0.040118707,0.029347109,0.013739283,0.005385799,0.005275885,0.007913827,0.004396571,0.006265113,0.002857771,0.007913827,0.009342713,0.010441855,0.005605628,0.002637942,0,0.002418114,0.004946142,0.004506485,0.002418114,0.005056056,0.006265113,0.012750055,0.01055177,0.006375027,0.007364256,0.000329743,0.002967685,0.007803913,0.011760827,0.006155199,0.005056056,0.005385799,0.005275885,0.003297428,0.005275885,0.004616399,0.004946142,0.005385799,0.004946142,0.003737085,0.0023082,0.001978457,0.001978457,0.0023082,0.002198285,0.002198285,0.002198285,0.002198285,0.0023082,0.002967685,0.003297428,0.003846999,0.004286656,0.004836228,0.005605628,0.006484942,0.006375027,0.006375027,0.008353484,0.010222027,0.005605628,0.008573313,0.004836228,0.006594856,0.003737085,0.007364256,0.006265113,0.002967685,0.006594856,0.010441855,0.010222027,0.00901297,0.006594856\nSRI-1053176-001.txt,O=C(Cn1nnc2ccccc2c1=O)Nc1nnc(s1)C1CCC1,0.950943135,0.963748589,0.97517216,0.985352035,0.993781524,0.998940556,1,0.996407103,0.98857643,0.976692232,0.962366706,0.945738041,0.925332228,0.898984316,0.865819111,0.824408669,0.777286441,0.726433128,0.675718004,0.627259955,0.58382275,0.546051268,0.512932126,0.483267694,0.457564661,0.434118704,0.411870379,0.390796656,0.370390843,0.350947742,0.332425896,0.315074046,0.298984316,0.28399088,0.270061494,0.256882931,0.244178816,0.232087335,0.220930929,0.210801723,0.201791842,0.194048688,0.188323084,0.183887238,0.181588705,0.180722725,0.181123471,0.182648149,0.185001958,0.188267809,0.191671849,0.195601004,0.199930906,0.204329902,0.208765748,0.213459545,0.218093461,0.222796472,0.226854603,0.230935765,0.234408899,0.236988415,0.238701951,0.239351436,0.239623206,0.238867777,0.237412193,0.235422281,0.232704576,0.229664433,0.226200511,0.222160805,0.217595983,0.212621203,0.207646422,0.203150694,0.198599691,0.194652111,0.191381653,0.18861328,0.185835694,0.182947558,0.179073677,0.174642438,0.169096479,0.162016629,0.154683434,0.147290357,0.140399364,0.134383565,0.129846381,0.126815449,0.125290771,0.124489279,0.123512748,0.121264884,0.116759944,0.109601787,0.099813446,0.088707709,0.076957093,0.065413759,0.054538336,0.04507704,0.037158848,0.030401437,0.024648195,0.020097192,0.016504295,0.013616159,0.011478846,0.009525784,0.007720123,0.00664686,0.005762454,0.00490108,0.004094981,0.003496165,0.002938806,0.002349202,0.002128101,0.002082038,0.001556922,0.00138649,0.001160782,0.001331214,0.001202239,0.000999562,0.000819918,0.001045625,0.000958106,0.000709367,0.000663304,0.000640273,0.00079228,0.000608029,0.00039614,0.000322439,0.000566572,0.000304014,0.00039614,0.000345471,0.000331652,0.000409959,0.000363896,0.000313227,0.000299408,0.000290196,0.000299408,0.000285589,0.000257952,0.000225708,0.00019807,0.000175039,0.000152007,0.000133582,0.000119763,0.000105944,9.21E-05,7.83E-05,7.37E-05,6.45E-05,5.07E-05,3.69E-05,6.45E-05,0.000128976,0.000207283,0.000184251,0.000391534,0,2.3E-05,5.99E-05,5.99E-05,0.000119763,0.000244133,0.000101338,2.3E-05,9.21E-06,9.21E-05,0.000179645,9.21E-05\nSRI-1053378-001.txt,Cc1ccc(cc1)S(=O)(=O)NCCCC(O)=O,0.75538329,0.796870514,0.841803043,0.884582257,0.922049957,0.952483491,0.977749067,0.993683606,1,0.994688487,0.978753948,0.953775481,0.917743325,0.874677003,0.823428079,0.764857881,0.701981051,0.636089578,0.568475452,0.500717772,0.435687626,0.375538329,0.320987654,0.272179156,0.22997416,0.19480333,0.165934539,0.141429802,0.12182027,0.106402527,0.09379845,0.083433821,0.075165088,0.068403675,0.063781223,0.05994832,0.057637094,0.05585702,0.053689348,0.050961815,0.050559862,0.051004881,0.051650876,0.052828022,0.053072064,0.052727534,0.050574218,0.047803618,0.045262705,0.043942004,0.04153029,0.038329027,0.035371806,0.03356302,0.03274476,0.031653747,0.028610393,0.023169681,0.018102211,0.014958369,0.012144703,0.010134941,0.009086994,0.009072639,0.008440999,0.008742463,0.007952914,0.008828596,0.008771174,0.008541487,0.008771174,0.00878553,0.008110824,0.007464829,0.007349986,0.006876256,0.005928797,0.004923916,0.004292277,0.003344818,0.003057709,0.003229974,0.003158197,0.003344818,0.003373529,0.004120011,0.003617571,0.003014643,0.002871088,0.003603216,0.003674993,0.00327304,0.003158197,0.003344818,0.003258685,0.002971576,0.002813666,0.002555268,0.002469136,0.002555268,0.002311226,0.001464255,0.001837496,0.002526558,0.001622165,0.000832616,0.001148435,0.000645995,0.00031582,0.001263279,0.001622165,0.001177146,0.001177146,0.000488085,0.001650876,0.000918748,0.000645995,0.001062303,0.001220212,0.001378122,0.00129199,0.001076658,0.001177146,0.001091013,0.000703417,0.000531151,0.00163652,0.00147861,0.000990525,0.001105369,0.000846971,0.001091013,0.000732127,0.00031582,0.000531151,0.001076658,0.001579098,0.000732127,0.000459374,0.00066035,0.000961815,0,0.001004881,0.001162791,0.000789549,0.000803905,0.000890037,0.000961815,0.001091013,0.001047947,0.000961815,0.000861326,0.000746483,0.000689061,0.000631639,0.000574218,0.000545507,0.00050244,0.000488085,0.000459374,0.000430663,0.000401952,0.000387597,0.000416308,0.00047373,0.000459374,0.00081826,0.000904393,0.000875682,0.000545507,0.000387597,0.001047947,0.000631639,0.000961815,0.000803905,0.000861326,0.000229687,0.000890037,0.001177146,0.000344531,0.000574218\nSRI-1053200-001.txt,COc1ccc(cc1)S(=O)(=O)NC(CC(O)=O)c1ccccc1,0.394984049,0.38284998,0.377465988,0.378269569,0.387912538,0.40494845,0.428573725,0.457824064,0.491735172,0.531432061,0.574584348,0.619906302,0.666112196,0.713764535,0.760774009,0.807060261,0.850292905,0.890552301,0.925508064,0.955401268,0.978062245,0.993249922,1,0.99831248,0.985776621,0.964481731,0.933142081,0.89352555,0.845391063,0.789622558,0.726838794,0.660390701,0.593042598,0.526674863,0.464188424,0.406852937,0.355761272,0.312842024,0.276311243,0.246337681,0.22199722,0.201345194,0.184871789,0.171419847,0.159575066,0.149176732,0.139389118,0.130565801,0.122979999,0.116551353,0.111207541,0.105952123,0.0997083,0.09254036,0.084721519,0.076243742,0.06815972,0.060935529,0.055382786,0.052216678,0.050175582,0.047499658,0.042822818,0.0369165,0.030142314,0.023528845,0.018233247,0.013596586,0.010623338,0.008582242,0.007087582,0.005600958,0.005014344,0.004467909,0.003857188,0.00318218,0.002949141,0.00258753,0.00224199,0.002402706,0.002466993,0.002322348,0.002209847,0.001928594,0.002217883,0.001679484,0.001808057,0.001679484,0.001832164,0.001366087,0.001068762,0.001550911,0.00134198,0.001478589,0.001125013,0.001084834,0.001293765,0.000803581,0.00090001,0.000867867,0.001116977,0.001004476,0.000409826,0.000530363,0.000554471,0.000530363,0.000417862,0.000530363,0.000208931,0.000554471,0.000570542,0.000602686,0.000337504,0.000490184,0.000562507,0.000530363,0.000522327,0.000530363,0.000433934,0.000522327,0.000771438,0.000466077,0.000506256,0.000602686,0.000225003,0.000385719,0.000634829,0.000450005,0.000514292,0.000803581,0.000570542,0.000506256,0.001165192,0.000570542,0.000578578,0.000578578,0.000964297,0.000104465,0.00024911,0.000634829,0.000771438,0.000610721,5.63E-05,0.000425898,0.000546435,0.000546435,0.000458041,0.00034554,0.000216967,0.000184824,0.000128573,7.23E-05,2.41E-05,8.04E-06,0,3.21E-05,7.23E-05,0.000112501,0.000136609,0.000168752,0.000192859,0.000208931,0.000192859,0.000192859,0.000176788,0.000265182,0.000377683,7.23E-05,0.000128573,0.000441969,0.000369647,0.000337504,0.000112501,0.000522327,0.000305361,0.000441969,0.00024911,0.000241074,0.000353576,0.000313396,0.000297325\nSRI-0000601.txt,CC12CC=C3C(CCC4=CC(=O)C=CC34C)C1CCC21OCOC11COCO1,0.527680773,0.544544298,0.564921058,0.588108404,0.612701045,0.639401626,0.668912794,0.700531904,0.73285366,0.765175416,0.797497172,0.828413634,0.85862745,0.887435971,0.913433906,0.93704284,0.9574196,0.973721007,0.986438915,0.995432795,0.999789206,1,0.996627295,0.988617121,0.976953183,0.961354422,0.941891104,0.919827992,0.895094822,0.868183447,0.840218102,0.811620374,0.782249735,0.753483372,0.725117518,0.697939137,0.670725623,0.645957321,0.621568448,0.598345969,0.576402307,0.555119134,0.534875877,0.515089342,0.495914108,0.477026961,0.458737063,0.440194212,0.422072949,0.404014924,0.386006085,0.368151828,0.350304597,0.332380076,0.314659322,0.297233679,0.280243678,0.263450418,0.247275487,0.231388641,0.215888251,0.201174826,0.186777591,0.173504592,0.16091316,0.148588734,0.137458807,0.126982342,0.116906386,0.107406601,0.098939706,0.091070061,0.084036566,0.077227918,0.070918149,0.065058074,0.060041175,0.054834562,0.050541389,0.046641699,0.042812274,0.039460648,0.036446293,0.033361673,0.030586218,0.028344775,0.026307099,0.024206185,0.022259853,0.020538368,0.019259551,0.017622384,0.016427884,0.015296622,0.01418644,0.013532979,0.012788173,0.011748256,0.010926159,0.010476465,0.009773818,0.009422495,0.009007933,0.008326365,0.00779938,0.007764248,0.007307527,0.006885939,0.006457325,0.006260584,0.005782784,0.005297957,0.005354169,0.00495366,0.004553152,0.004412622,0.004482887,0.004082378,0.004026167,0.003829425,0.003969955,0.003449996,0.003218123,0.003119752,0.00332352,0.003295414,0.002677085,0.002754376,0.002747349,0.002431158,0.002255496,0.00212902,0.001988491,0.002143073,0.001728511,0.001665273,0.001545823,0.001342056,0.001068023,0.001391241,0.001159367,0.001208553,0.001018838,0.000779938,0.001025864,0.00081507,0.000667515,0.00057617,0.000505906,0.0004778,0.000463747,0.000435641,0.000407535,0.000414562,0.000428615,0.000435641,0.000428615,0.000407535,0.000400509,0.000386456,0.00035835,0.000330244,0.000302138,0.000259979,0.000217821,0.000182688,0.000196741,0,0.00033727,0.00033727,0.000519959,0.000407535,0.000203768,8.43E-05,0.000295112,0.000309165,0.00033727,0.000168635,0.000112423,0.000175662,0.000203768\nSRI-1052907-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)Cc1csc(n1)-c1ccc(F)cc1,1,0.99271545,0.978529748,0.953800618,0.918336362,0.870795089,0.812326992,0.745194114,0.672923712,0.598544624,0.526791808,0.46101999,0.402801101,0.352748576,0.31147585,0.277276805,0.249097099,0.225824879,0.206712521,0.190418133,0.176865036,0.165458965,0.155452294,0.146902533,0.139407114,0.133081058,0.127732665,0.123400275,0.120256416,0.11828192,0.117430778,0.117772001,0.119303674,0.121960617,0.125762002,0.130510379,0.136309264,0.142986129,0.150579313,0.159046644,0.168008557,0.177708511,0.187740103,0.198337206,0.209599503,0.220871386,0.23245382,0.244329553,0.256191867,0.267895072,0.279494759,0.291008182,0.302324155,0.313438844,0.323581621,0.33323365,0.342287579,0.350889098,0.359509788,0.368381603,0.376996542,0.384856188,0.391828269,0.397040556,0.400709669,0.402070729,0.40197488,0.401670079,0.402087982,0.403650326,0.405822272,0.405967963,0.401923121,0.393649406,0.382260588,0.370112642,0.358125724,0.347160559,0.337205647,0.327710811,0.318447931,0.309252145,0.300016103,0.290435003,0.280388075,0.269953916,0.258952328,0.247948824,0.236351054,0.224764786,0.213410473,0.202025488,0.191043071,0.180131582,0.169317859,0.15848305,0.147594565,0.136514381,0.125273171,0.113844095,0.102418854,0.09097636,0.079539616,0.068660716,0.058366497,0.04886016,0.040229885,0.032707629,0.02640841,0.021186538,0.016957665,0.013468749,0.010677616,0.008701203,0.007056428,0.005626356,0.00463144,0.003697868,0.003019254,0.00261477,0.002260127,0.001757877,0.001522088,0.001378314,0.001115686,0.001021754,0.000918237,0.000787882,0.000603851,0.000655609,0.000550175,0.000473496,0.000408318,0.000251125,0.000377646,0.000329722,0.000335473,0.000199367,0.000264544,0.000253042,0.000210869,0.000208952,0.000220453,0.000235789,0.000237706,0.000199367,0.000174446,0.000226204,0.000312469,0.000350809,0.000362311,0.000366144,0.000341224,0.000310552,0.00027988,0.000251125,0.000224287,0.000201284,0.00017828,0.000161027,0.000147608,0.000130355,0.000111185,9.78E-05,9.58E-05,0.000111185,0.00015911,0.000136106,0.000109268,9.39E-05,0.000118853,5.37E-05,0.000153359,0.000143774,0.000143774,0.000103517,0.000164861,0,3.07E-05,0.000124604,0.000118853\nSRI-1052917-001.txt,COc1ccc(CN2C(=O)N[C@@H](CC(=O)NCCc3c[nH]c4ccccc34)C2=O)cc1,0.985183661,0.996954419,1,0.992468361,0.972095895,0.93583702,0.883444799,0.815577734,0.736269163,0.649840519,0.561889083,0.477765202,0.400390987,0.330918819,0.270994958,0.220125527,0.178722091,0.145549954,0.119662517,0.099619302,0.084432555,0.073402613,0.065377096,0.059532874,0.055705319,0.052906678,0.051301574,0.05064307,0.05064307,0.051095792,0.052248174,0.05368042,0.055721782,0.058005968,0.060685256,0.063751415,0.067377302,0.071180163,0.075246425,0.079518469,0.08408684,0.088860994,0.093927359,0.098853792,0.104208252,0.109714991,0.115143533,0.120366293,0.12566725,0.130984669,0.135668279,0.140170799,0.144525157,0.148558494,0.151962136,0.154707274,0.156217718,0.156950304,0.157452413,0.157892787,0.158629489,0.159028707,0.159053401,0.157863978,0.154571458,0.148879514,0.140886923,0.131861303,0.124486058,0.119502006,0.116905031,0.113674246,0.107998765,0.098911411,0.087247659,0.075028295,0.063697911,0.053614569,0.045054018,0.037773433,0.031772816,0.026447165,0.021829406,0.018092396,0.014696985,0.012030044,0.009815825,0.007939088,0.006309291,0.005218644,0.004025105,0.003313098,0.00265871,0.002205988,0.001629797,0.001403437,0.001399321,0.000942484,0.000938368,0.000744933,0.000547381,0.000526803,0.000642041,0.000695545,0.000535034,0.000448606,0.000456837,0.000637926,0.000535034,0.000613232,0.00053915,0.00056796,0.000386871,0.000419796,0.000432143,0.000358062,0.000390987,0.000489762,0.000341599,0.000493878,0.000321021,0.000390987,0.000646157,0.000465068,0.000428028,0.000382755,0.000535034,0.000493878,0.000366293,0.000469184,0.000304558,0.000395102,0.000312789,0.000214014,0.000535034,0.000456837,0.000580307,0.000345715,0.000345715,0.000353946,9.47E-05,0.000366293,0.000197551,0.000271633,0.000263402,0.000304558,0.000296327,0.000279864,0.000251055,0.000201667,0.000148163,0.000119354,9.47E-05,9.47E-05,0.000107007,0.000123469,0.000139932,0.000156395,0.000172857,0.00018932,0.000197551,0.000209898,0.000214014,0.00018932,0.000135816,7.82E-05,0.000144048,0.000115238,0,6.59E-05,0.000300442,1.65E-05,0.000226361,0.000135816,0.000288095,0.000156395,0.00018932,0.000156395,0.000246939,0.000193436,0.000300442\nSRI-0000371.txt,CN(C)C(C1=NC2=C(N1)C=CC(C)=C2)C1=CC=CC=C1,1,0.949401437,0.906624102,0.868316042,0.833200319,0.801117318,0.768555467,0.739185954,0.708858739,0.679010375,0.648044693,0.616440543,0.584517159,0.55179569,0.517956903,0.485714286,0.454269753,0.425538707,0.400957702,0.3792498,0.362330407,0.348762969,0.339505188,0.333120511,0.329130088,0.327853152,0.327422187,0.328842777,0.330518755,0.332785315,0.334668795,0.336344773,0.337350359,0.338036712,0.337781325,0.335706305,0.333631285,0.330822027,0.327294493,0.323447725,0.318978452,0.315147646,0.311843575,0.309960096,0.308651237,0.307916999,0.309848364,0.313280128,0.32,0.330151636,0.342841181,0.356648045,0.370981644,0.386384677,0.403335994,0.420957702,0.441771748,0.463910615,0.486352753,0.509816441,0.529736632,0.544213887,0.554333599,0.558292099,0.556472466,0.550359138,0.543655227,0.539106145,0.534285714,0.527326417,0.511077414,0.481308859,0.43763767,0.38236233,0.319952115,0.257382283,0.199409417,0.150055866,0.111029529,0.080925778,0.058802873,0.042490024,0.031300878,0.023575419,0.017286512,0.012849162,0.009992019,0.008810854,0.006241022,0.005059856,0.004836393,0.004309657,0.003607342,0.003080607,0.002234637,0.001548284,0.002442139,0.001787709,0.001580208,0.001675978,0.002011173,0.002090982,0.002059058,0.002617717,0.002138867,0.001260974,0.001532322,0.001085395,0.001245012,0.001707901,0.001835595,0.001468476,0.001021548,0.001420591,0.001723863,0.001340782,0.001548284,0.001739824,0.001468476,0.001500399,0.001484437,0.001245012,0.001053472,0.000957702,0.001628093,0.001340782,0.001165204,0.001612131,0.001213089,0.000814046,0.001308859,0.001596169,0.001867518,0.001053472,0.001005587,0.001308859,0.001484437,0.001149242,0.001691939,0.00103751,0.000893855,0.00094174,0.001644054,0.001755786,0.001197127,0.001197127,0.001213089,0.001213089,0.001181165,0.001117318,0.001021548,0.000957702,0.000893855,0.000830008,0.000814046,0.000814046,0.000830008,0.000830008,0.000830008,0.000830008,0.00084597,0.000861931,0.000893855,0.000893855,0.000798085,0.000590583,0.000478851,0.000830008,0.001612131,0.000654429,0.00094174,0.001101357,0.000877893,0.000989625,0.000766161,0.001021548,0.00103751,0,0.00094174,0.001165204,0.00207502\nSRI-0000403.txt,CN(C)C(C1=NC2=C(C=CC=C2)N1C)C1=CC=CC=C1,1,0.949408215,0.901833372,0.857739615,0.814110002,0.77140868,0.728707357,0.686934324,0.644000928,0.601995823,0.558134138,0.513112091,0.469250406,0.427013228,0.387328847,0.354374565,0.327454166,0.306103504,0.291715015,0.282664191,0.277790671,0.276862381,0.279879322,0.284752843,0.292411232,0.300997911,0.310118357,0.32169877,0.333047111,0.344116964,0.353515897,0.361963333,0.370828498,0.379275934,0.386679044,0.392132745,0.396913437,0.400881875,0.401021119,0.400023207,0.39637967,0.393432351,0.389765607,0.388025064,0.386168485,0.384242284,0.385982827,0.389185426,0.398305871,0.409097238,0.418913901,0.427570202,0.434787654,0.442399629,0.451612903,0.464214435,0.480923648,0.498862845,0.5102576,0.514249246,0.505407287,0.486330935,0.462868415,0.445230912,0.438500812,0.440148526,0.437363657,0.419238803,0.378231608,0.322046879,0.257739615,0.196240427,0.143768856,0.104641448,0.073659782,0.052378742,0.037317243,0.026734741,0.019726155,0.014922256,0.011371548,0.010141564,0.008261778,0.0067301,0.005337665,0.004270132,0.003597122,0.004548619,0.003040149,0.00227431,0.002506382,0.002970527,0.002042237,0.001786958,0.002204688,0.000974704,0.001531678,0.002483175,0.001554885,0.000974704,0.001299605,0.001415642,0.000974704,0.001485263,0.001415642,0.001949408,0.001229984,0.000835461,0.000789046,0.001137155,0.00201903,0.002343931,0.000208865,0.00025528,0.000487352,0.002181481,0.001810165,0.001462056,0.000997911,0.001322813,0.0016013,0.001740543,0.001021119,0.00176375,0.00201903,0.000464145,0.001253191,0.001531678,0.001462056,0.001369227,0.001438849,0.001786958,0.001879786,0.001554885,0.001740543,0.001160362,0.001253191,0.000603388,0.001554885,0.000742632,0.000278487,0.001067533,0.001438849,0.000556974,0.000881875,0.001021119,0.00109074,0.001113948,0.001183569,0.001206777,0.001160362,0.00109074,0.000997911,0.000905082,0.000858668,0.000789046,0.000765839,0.000719424,0.00067301,0.00067301,0.000696217,0.000696217,0.000765839,0.000812253,0.000835461,0.000951497,0.00109074,0.001160362,0.002111859,0.000835461,0.000278487,0,0.000905082,0.001044326,0.000905082,0.00092829,0.00092829,0.000348109,0.001276398,0.001021119,0.000812253\nSRI-1053081-001.txt,O=C(C[C@@H]1NC(=O)N(CCc2c[nH]c3ccccc23)C1=O)NC1CCCC1,0.997593975,1,0.992026545,0.972134872,0.938114795,0.887112658,0.818009378,0.734218154,0.641306416,0.545401135,0.454195996,0.37306259,0.303259884,0.245878983,0.200640115,0.165808704,0.139454336,0.119618617,0.10495865,0.093963675,0.085766403,0.07975134,0.075135129,0.071861816,0.069455791,0.067945031,0.067189651,0.067049766,0.067500196,0.068356293,0.069713179,0.071475733,0.073753063,0.076469634,0.079566692,0.083100191,0.086849114,0.091017693,0.09534574,0.100065466,0.104913887,0.10983225,0.114971631,0.120136192,0.125451829,0.130669546,0.135775356,0.140844795,0.145813516,0.150580803,0.154942423,0.159060643,0.162859925,0.166040914,0.168721114,0.170556407,0.171790195,0.172724628,0.17378216,0.175393637,0.177125415,0.17859421,0.179173335,0.178420752,0.176009132,0.171401314,0.164935821,0.158294072,0.152970042,0.150398953,0.149548451,0.147220761,0.140844795,0.12955606,0.114728231,0.099214964,0.084499043,0.071520496,0.060528318,0.051074878,0.042967133,0.036051209,0.030134066,0.024969505,0.020593897,0.016968073,0.013898992,0.011313914,0.009299567,0.007570586,0.006129769,0.005021878,0.004238521,0.003709755,0.003141821,0.002657818,0.002308106,0.001933213,0.001818507,0.001505165,0.001191822,0.001116284,0.00092604,0.00071901,0.000705021,0.000525968,0.000525968,0.000391679,0.000391679,0.000349713,0.000405667,0.000411262,0.000363701,0.00030495,0.000260186,0.000313343,0.00034132,0.000246198,0.000360904,0.000209828,0.000302152,0.000276973,8.39E-05,0.00030495,0.000313343,0.000232209,0.000235007,0.000100717,0.000167862,0.000156671,0.000131492,0.000282568,0.000106313,0.000120301,0.000139885,5.32E-05,0.000153874,0.000165065,0.000148278,0.000148278,0.000145481,0.000151076,0.000235007,0.000148278,0.000156671,0.000131492,0.000120301,0.00010911,0.000100717,7.83E-05,5.32E-05,4.2E-05,3.92E-05,3.08E-05,2.52E-05,1.96E-05,1.4E-05,1.12E-05,5.6E-06,0,2.8E-06,2.8E-06,2.8E-06,1.68E-05,3.92E-05,1.96E-05,2.8E-06,9.79E-05,0.00017066,0.000151076,1.96E-05,8.67E-05,0.000209828,0.000151076,6.99E-05,3.36E-05,3.08E-05,0.000137087,3.92E-05,0.000106313,3.08E-05\nSRI-0000415.txt,CCCCCC(=O)NC1=CC=C(C=C1)S(=O)(=O)C1=CC=C(N)C=C1,0.457819727,0.412452697,0.372618231,0.33831633,0.308440481,0.284097196,0.26307345,0.248688782,0.237623653,0.229878062,0.226558523,0.22711178,0.229988714,0.236295837,0.245590546,0.256987629,0.270487087,0.286310222,0.304014429,0.323710359,0.344844756,0.367860225,0.392314161,0.417985261,0.444984177,0.473310908,0.502854803,0.532841304,0.563823666,0.594474074,0.625124483,0.655011397,0.683670082,0.711189059,0.737004006,0.760782969,0.781341979,0.798935535,0.810564986,0.81609755,0.813740678,0.803295196,0.785015602,0.76091575,0.733363578,0.70530241,0.680450129,0.65957023,0.644366743,0.6360347,0.634076172,0.637340386,0.645185562,0.657722354,0.672272999,0.689335428,0.708234669,0.728472791,0.749529732,0.771693186,0.793845575,0.815555359,0.837552836,0.85846593,0.877818842,0.896386129,0.914389094,0.931783478,0.94736318,0.962013411,0.974395291,0.985017815,0.993217076,0.997709518,1,0.999247571,0.993438378,0.98500675,0.972514219,0.954776816,0.93245845,0.906400071,0.877088543,0.843561201,0.806050413,0.766879855,0.724777038,0.68131321,0.636499436,0.591763118,0.54618585,0.501460597,0.457775466,0.41528537,0.374632084,0.336678691,0.300849802,0.266979441,0.236096665,0.208135083,0.181645163,0.159448514,0.138280922,0.120001328,0.103171266,0.08939518,0.076836258,0.065505566,0.056642397,0.048509527,0.041162281,0.0350322,0.029388984,0.025770686,0.021886826,0.018036161,0.016066568,0.013422002,0.011386018,0.009925421,0.008630801,0.007646004,0.006439905,0.005554695,0.004658419,0.004282205,0.003706818,0.003585102,0.002876934,0.002423263,0.002522849,0.002390068,0.002024919,0.001593379,0.001903202,0.001969593,0.002102375,0.001460597,0.000774559,0.001504858,0.001416337,0.001128643,0.001006927,0.001228229,0.000929471,0.000796689,0.000807754,0.000918406,0.000984797,0.000962666,0.000918406,0.000896275,0.000852015,0.000807754,0.000774559,0.000741364,0.000719233,0.000719233,0.000741364,0.000763494,0.000774559,0.00081882,0.000874145,0.000962666,0.001017992,0.000962666,0.000719233,0.000309824,0.000542191,0.000763494,0.000475801,0.000940536,0.000320889,0.000376214,0.000586452,0.000442605,0.000896275,0.000973731,0.000586452,0,0.00081882\nSRI-031101-1.txt,COC1=CC=C(C=C1)S(=O)(=O)N1C(CC(=O)NC2=C(OC)C=CC=C2)C(=O)NC2=C1C=CC=C2,0.001600666,0,0.000462238,0.003211798,0.007489233,0.014035495,0.023201099,0.034133352,0.046099678,0.059920192,0.075478152,0.092465289,0.110922891,0.131198589,0.153513729,0.177522264,0.203357444,0.23136813,0.261631226,0.293741944,0.326961287,0.361931435,0.398247506,0.435131145,0.473030286,0.510621489,0.548087932,0.585297576,0.621394253,0.656031288,0.68931599,0.721437872,0.752270343,0.781677579,0.809462647,0.834572448,0.858120668,0.879650331,0.898213652,0.914715832,0.929407754,0.942331921,0.954234676,0.9653109,0.9745855,0.982173149,0.988178742,0.992546044,0.995688775,0.99833878,1,0.999607968,0.996198308,0.989201671,0.978530272,0.964473464,0.946948826,0.927360718,0.907172776,0.886352731,0.864873102,0.841028768,0.814569755,0.787061782,0.759893149,0.733143873,0.707472249,0.683192856,0.660072384,0.638180281,0.618336229,0.599460837,0.581573183,0.565095093,0.549368315,0.535178586,0.522190404,0.510355039,0.499862917,0.490409689,0.482280728,0.474807404,0.468206032,0.462918999,0.458181931,0.454230285,0.450807117,0.44762134,0.444792511,0.442527587,0.440556805,0.43883326,0.437268244,0.435745313,0.434420253,0.433280344,0.43209746,0.431024641,0.430314111,0.429535282,0.428575712,0.427927495,0.427433555,0.426804869,0.427225688,0.427736686,0.425318428,0.42202141,0.422487491,0.422219445,0.423500192,0.424014205,0.422212537,0.421849108,0.421658557,0.421132271,0.420756942,0.420722445,0.420560422,0.42034214,0.420379245,0.420478767,0.420453277,0.420579686,0.420373956,0.420061802,0.419907572,0.420031676,0.420497273,0.420156812,0.419616645,0.419752766,0.420232807,0.4202267,0.42006283,0.420141029,0.420469115,0.420706004,0.420560958,0.420849412,0.42129006,0.421437681,0.421824615,0.42263958,0.42302634,0.423052942,0.423888713,0.425853089,0.426547589,0.426477125,0.42563336,0.424353346,0.424937629,0.42451514,0.423728454,0.424516611,0.425819998,0.424702276,0.4257015,0.428592709,0.429508923,0.427460589,0.42652546,0.427950438,0.428186738,0.426125485,0.425809266,0.427726614,0.432635477,0.433137324,0.426049164,0.422779755,0.426034595,0.431471969,0.43313803,0.429576035,0.426041286,0.425728361,0.430962441,0.436410636,0.433715139\nSRI-1053091-001.txt,COC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)c1c(C)cc(C)cc1C,0.994952531,1,0.995870253,0.979504216,0.954113917,0.914193024,0.858212003,0.788159249,0.706329067,0.620063231,0.535938745,0.46008905,0.393783659,0.337557912,0.291595352,0.254320557,0.224464012,0.200710317,0.181468752,0.165469805,0.152178136,0.141012522,0.131422331,0.123025178,0.115851653,0.109718214,0.1044872,0.100082136,0.096503022,0.093719266,0.09176146,0.090751966,0.090490415,0.090959983,0.092148432,0.094075648,0.096649857,0.099785406,0.103460881,0.107451441,0.111750967,0.116383932,0.121365631,0.126549229,0.131901076,0.137248334,0.142649126,0.147916848,0.152942904,0.157598812,0.16195646,0.165821598,0.169362474,0.172420017,0.174734205,0.175910418,0.176433519,0.176572707,0.177337475,0.178610049,0.179917803,0.180739164,0.18061833,0.179041379,0.175242011,0.168937263,0.160904139,0.15305609,0.147996384,0.146373546,0.146425551,0.144288789,0.136209779,0.122110515,0.104748751,0.087350278,0.071788777,0.058579703,0.047701643,0.038701852,0.03129125,0.024966618,0.01978455,0.015616564,0.012315825,0.009608546,0.007477902,0.005807649,0.004519779,0.003525581,0.002728692,0.002214768,0.001760496,0.001414821,0.001165507,0.000916192,0.000807595,0.000714293,0.000709705,0.000579694,0.000507806,0.000474156,0.000409916,0.000425211,0.000368618,0.000319673,0.000357911,0.000302848,0.000315084,0.000376266,0.000255433,0.000247785,0.000341087,0.000238608,0.000321203,0.000188133,0.000253903,0.000249314,0.000272257,0.000186603,0.000217194,0.000237078,0.000156013,0.000214135,0.000142247,0.000126951,0.000123892,0.000136129,0.000114715,0.000174367,0.00013154,0.000130011,0.000146835,0.000114715,0.000123892,0.000119304,0.000130011,0.000111656,0.000117774,0.00013154,0.000107068,9.33E-05,0.000111656,9.02E-05,0.000107068,0.000100949,0.000108597,0.000110127,0.000105538,8.26E-05,6.12E-05,4.44E-05,3.36E-05,2.91E-05,2.29E-05,1.99E-05,1.84E-05,1.68E-05,1.99E-05,2.29E-05,2.6E-05,3.06E-05,3.36E-05,3.36E-05,4.28E-05,3.98E-05,3.52E-05,4.44E-05,0.000113186,0.000123892,3.98E-05,0,8.87E-05,0.000108597,6.88E-05,7.95E-05,6.58E-05,4.13E-05,9.18E-05,8.87E-05,3.98E-05\nSRI-0000367.txt,C(OC(CN1CCOCC1)OCC1=CC=CC=C1)C1=CC=CC=C1,1,0.720460418,0.500822175,0.342259807,0.230678882,0.16255579,0.127319709,0.099130843,0.080338266,0.072116514,0.062720226,0.058022081,0.049800329,0.048625793,0.047451257,0.043927649,0.036880432,0.039229504,0.03453136,0.03453136,0.032182288,0.036880432,0.041578576,0.046276721,0.052149401,0.054498473,0.061545689,0.065069298,0.067066009,0.070941978,0.075170308,0.082687339,0.08926474,0.096194503,0.10065774,0.100422833,0.107470049,0.110523843,0.121212121,0.120389946,0.115221987,0.115809255,0.112872915,0.110288936,0.107352596,0.100187926,0.097956307,0.083626967,0.079046277,0.067653277,0.05896171,0.048743246,0.034061546,0.032769556,0.030772845,0.025252525,0.0260747,0.027249237,0.026427061,0.031477566,0.029598309,0.031242659,0.031947381,0.023490721,0.028188865,0.02865868,0.027484144,0.027131783,0.023843082,0.025839793,0.021846371,0.019262391,0.014799154,0.009983556,0.009748649,0.012567536,0.012450082,0.018322763,0.015268969,0.009161381,0.011510453,0.011627907,0.010688278,0.01303735,0.007399577,0.011393,0.012919897,0.011862814,0.010570825,0.009748649,0.006107588,0.008104299,0.006694856,0.003288701,0.009748649,0.009396288,0.002466526,0.00422833,0.00880902,0.006812309,0.003875969,0.009043928,0.009043928,0.006694856,0.004698144,0.007517031,0.003875969,0.001174536,0.007399577,0.007751938,0.006812309,0.01010101,0.001526897,0.009043928,0.005520319,0.00422833,0.009278835,0.009043928,0.005755227,0.006459948,0.003523608,0.009748649,0.009866103,0.011980268,0.005050505,0.006459948,0.003875969,0.010453371,0.010335917,0.005167959,0.005755227,0.011393,0.011745361,0.003641062,0.005050505,0.008574113,0.013859525,0.00587268,0.008339206,0.006812309,0.002701433,0.005050505,0.006812309,0.004580691,0.006107588,0.006107588,0.006342495,0.005990134,0.005167959,0.004110876,0.003523608,0.003406155,0.003641062,0.004110876,0.004345783,0.004698144,0.005050505,0.005285412,0.005520319,0.005402866,0.005285412,0.005285412,0.005285412,0.005285412,0.005285412,0.003993423,0.004698144,0.004698144,0.004815598,0.005520319,0.003758515,0.002466526,0.001761804,0.003758515,0.003875969,0,0.00129199,0.006342495,0.003523608,0.000704722,0.004698144\nSRI-1052921-001.txt,COc1ccccc1CN1C(=O)N[C@@H](CC(=O)NCCc2c[nH]c3ccccc23)C1=O,1,0.992951646,0.980105452,0.958710288,0.92985751,0.889113476,0.837933332,0.776908228,0.708675614,0.634963474,0.561865222,0.494132814,0.433494233,0.380881681,0.336931783,0.300530445,0.271109252,0.246894745,0.227136618,0.210288778,0.19598744,0.183959765,0.173546391,0.164838263,0.157585279,0.15158281,0.146921802,0.143192995,0.140355464,0.138313715,0.13675853,0.13569673,0.13505101,0.134646298,0.134584909,0.134866843,0.135307933,0.135985485,0.136906318,0.137970392,0.139259559,0.140421401,0.141794693,0.143411267,0.145382532,0.147842635,0.151130351,0.155275238,0.160286391,0.16615244,0.172636926,0.179701195,0.187211103,0.194957471,0.202828891,0.21043884,0.217928284,0.225326782,0.233100434,0.241206042,0.24980276,0.258299437,0.266418686,0.274251453,0.280992863,0.286499674,0.290721865,0.294568902,0.298859303,0.304663964,0.311462215,0.317935332,0.322439458,0.324287946,0.323658141,0.322650909,0.321784643,0.321718707,0.322507668,0.323783193,0.325661238,0.327887154,0.330306331,0.332946053,0.336165559,0.339566958,0.34370275,0.347884016,0.352708728,0.357879037,0.363442689,0.369274633,0.374995168,0.381111321,0.387031938,0.392611506,0.397697689,0.402345056,0.405776012,0.408456661,0.409868605,0.410261949,0.409154675,0.406771877,0.403047617,0.398072844,0.39204309,0.384574109,0.376363913,0.36667129,0.355894129,0.343986958,0.330824726,0.316205075,0.300064345,0.283298357,0.265038573,0.246010291,0.226513634,0.206882831,0.187142893,0.167862234,0.149488767,0.131817861,0.115363365,0.100120731,0.086215011,0.073718962,0.062596204,0.053021811,0.044606986,0.037460865,0.031181009,0.025776513,0.021381523,0.017459455,0.014299064,0.011545659,0.0093925,0.007639506,0.006141163,0.004965679,0.004001646,0.003319547,0.002712479,0.002280484,0.002021286,0.001905329,0.001764362,0.001473333,0.001134558,0.000845802,0.000652541,0.000543405,0.000488837,0.000450185,0.000420628,0.000393344,0.000370607,0.000345597,0.000316039,0.00027966,0.000247829,0.00020463,0.000165977,0.000129599,8.87E-05,4.55E-05,6.59E-05,6.37E-05,0.000106862,8.19E-05,6.59E-05,3.64E-05,0.000150062,0.000115957,9.55E-05,4.55E-05,0.000131872,3.64E-05,0\nSRI-1052859-001.txt,Cc1[nH]c(=O)[nH]c(=O)c1S(=O)(=O)N1CCCC(C1)C(=O)NCCc1ccc(F)cc1,0.865742039,0.802258879,0.744724609,0.690164784,0.638494421,0.588778693,0.541612489,0.495806032,0.452209163,0.410906866,0.373683808,0.340624973,0.312665188,0.289549499,0.271532859,0.258615268,0.25045679,0.246292566,0.246377551,0.250626758,0.257935395,0.268303461,0.281051084,0.296773152,0.315129728,0.335525924,0.358131708,0.382445674,0.409028716,0.437260451,0.467174872,0.499230893,0.532068769,0.565773483,0.59957168,0.634840102,0.670949868,0.707314586,0.743976748,0.778947726,0.811879085,0.84316175,0.873152657,0.902523179,0.929454657,0.956224664,0.976365908,0.989003051,0.993065293,0.993481716,0.99533437,0.999592076,1,0.988969057,0.965088511,0.933924823,0.90016062,0.866022487,0.831331957,0.795417655,0.757591209,0.717844122,0.676643806,0.633531346,0.588957159,0.543133706,0.496315937,0.449370692,0.40289286,0.357732283,0.313931452,0.272943596,0.234981176,0.200392627,0.169806831,0.143206792,0.120940945,0.101989479,0.085596036,0.072194036,0.060466223,0.050480585,0.041905685,0.034928486,0.028665154,0.023676584,0.01919792,0.015518106,0.01249267,0.009968641,0.008183974,0.006373811,0.005421989,0.00455515,0.003679814,0.003127417,0.002923455,0.002311569,0.002226585,0.00230307,0.002056616,0.001334251,0.001300258,0.001155784,0.000815848,0.000943324,0.001138788,0.001147286,0.001028308,0.000688372,0.001130289,0.001045305,0.000637381,0.00064588,0.000637381,0.00048441,0.000424921,0.000798851,0.000433419,0.000475911,0.000756359,0.0005354,0.000620384,0.000509905,0.000832845,0.0005354,0.000399426,0.000433419,0,0.00037393,0.000407924,0.000492908,0.000314441,0.000101981,0.000229457,0.000399426,0.000543899,0.000467413,0.000518403,0.000467413,0.000390927,0.0005354,0.000399426,0.000407924,0.000101981,0.000178467,0.000195464,0.000220959,0.000246454,0.000220959,0.000203962,0.000237956,0.000229457,0.000220959,0.00021246,0.000186965,0.000169968,0.00016147,0.00016147,0.000144473,0.000144473,0.000127476,0.000127476,0.000144473,0.000195464,0.000254952,0.00032294,0.000611886,8.5E-06,9.35E-05,0.000382429,0.000467413,0.000254952,0.000594889,0.000203962,0.000577892,0.000339937,0.000271949,0.000569394,0.000178467,0.000186965\nSRI-1052931-001.txt,O=C1Nc2ccc(c3cccc1c23)S(=O)(=O)Nc1ccccc1Oc1ccccc1,1,0.987439837,0.972870048,0.957295445,0.9384552,0.916349313,0.891982597,0.865355051,0.836466675,0.807075894,0.778187518,0.751886537,0.729228002,0.709659268,0.694034425,0.681273299,0.670697642,0.662181851,0.65436943,0.646833332,0.639422835,0.632188181,0.625028888,0.618120799,0.611589514,0.605535515,0.599933682,0.594583053,0.588604415,0.582374574,0.575315763,0.567151656,0.558316838,0.54835914,0.536648044,0.521967725,0.502152812,0.47600004,0.442964299,0.404452327,0.363242431,0.322328956,0.284236493,0.250638056,0.222036053,0.19871183,0.180122788,0.165781594,0.154351845,0.145494418,0.13856372,0.132753389,0.12810864,0.124320495,0.121758222,0.120185689,0.119311502,0.1188518,0.11820872,0.117085841,0.115274666,0.112910843,0.110114951,0.106871916,0.103347535,0.098959014,0.094015333,0.088405965,0.08249264,0.076765205,0.070995066,0.065639413,0.060550035,0.055543554,0.05032355,0.045158811,0.039850886,0.034414847,0.029317933,0.024673185,0.020500698,0.016888395,0.014444188,0.012733493,0.011866842,0.011788969,0.012635524,0.013999558,0.015692668,0.01738829,0.019433084,0.021608505,0.023904503,0.026579817,0.029692226,0.033337185,0.0372861,0.041739934,0.046972498,0.052667276,0.058784076,0.065159615,0.07112318,0.076112077,0.080241859,0.083474845,0.086097407,0.08854915,0.090900413,0.093613408,0.096650456,0.100481305,0.104992916,0.110484219,0.116902463,0.12452397,0.132647883,0.140774309,0.147981331,0.153266647,0.156014811,0.156281086,0.154482471,0.150998282,0.147046854,0.143123059,0.139392691,0.136453613,0.134145055,0.132876478,0.131949538,0.131841521,0.132007315,0.132559962,0.13349695,0.134368626,0.135318174,0.13620241,0.137254951,0.138181891,0.13856372,0.139246993,0.139633846,0.139686599,0.139515781,0.139241969,0.138917917,0.138634057,0.137709629,0.13564725,0.132961887,0.130361934,0.127995599,0.126031189,0.124230062,0.122459079,0.120554958,0.118379538,0.11578712,0.112752585,0.109100089,0.105065765,0.100134645,0.094055526,0.087122316,0.080385044,0.074549593,0.069173843,0.063853358,0.058442439,0.053159635,0.047575386,0.042124275,0.036570171,0.031317511,0.02587896,0.020641372,0.015318375,0.010070739,0.004981361,0\nSRI-1052795-001.txt,COc1cc(OC)c2c(C)c(CC(=O)N[C@H](Cc3c[nH]c4ccccc34)C(O)=O)c(=O)oc2c1,1,0.99532326,0.986456578,0.968514587,0.938524341,0.894451717,0.836939986,0.768144969,0.692552161,0.613690852,0.538706542,0.47152839,0.413147376,0.364067686,0.324567488,0.293203775,0.268968179,0.250087363,0.235657273,0.224304444,0.215542076,0.208813829,0.203928462,0.200677345,0.199008323,0.198834466,0.199773291,0.201824798,0.204345717,0.207125683,0.209850014,0.212603901,0.215366481,0.218555009,0.222166009,0.226022146,0.230111251,0.233996944,0.236512647,0.23757491,0.236443105,0.233318903,0.228527418,0.223198716,0.218141231,0.214272923,0.211595533,0.210832303,0.211541638,0.213629654,0.217037242,0.221496661,0.226839271,0.23266868,0.238758873,0.244788217,0.250807129,0.257173754,0.264112367,0.271725543,0.279521269,0.287202249,0.294372091,0.300458807,0.305125116,0.30794333,0.309560195,0.311199662,0.314744596,0.32032539,0.326980617,0.332251946,0.333329856,0.330224779,0.324927371,0.319384826,0.315102741,0.312750462,0.312197598,0.313270293,0.315547813,0.318659845,0.322891512,0.327710814,0.333176862,0.339199252,0.345619772,0.352297601,0.35897369,0.365905349,0.372593609,0.378986312,0.385154741,0.390650345,0.396029465,0.400681865,0.40491701,0.408538441,0.411831283,0.414433915,0.416504545,0.418039698,0.418582131,0.418392627,0.417349488,0.414920713,0.4114714,0.406791183,0.400927003,0.393605906,0.385316428,0.376131589,0.366621638,0.356226758,0.345277275,0.334324315,0.323081015,0.311477832,0.299627773,0.287445648,0.274729784,0.261601879,0.247669019,0.233256315,0.217976067,0.20230638,0.186299412,0.170344601,0.154793137,0.139853648,0.1261242,0.112596425,0.099708443,0.087653233,0.076528155,0.066552269,0.057509992,0.049474345,0.042382738,0.036209094,0.030873438,0.026184528,0.022154534,0.018792149,0.015937426,0.013692938,0.012395969,0.011766608,0.010975561,0.009463009,0.007700104,0.006126703,0.005071394,0.004429864,0.004026517,0.003715313,0.003431927,0.003146803,0.002861678,0.002567861,0.00226535,0.001915899,0.001542107,0.001182224,0.000867544,0.00066587,0.000528524,0.000446811,0.000410301,0.000337282,0.000304249,0.000321635,0.000231229,0.000210366,0.00013387,8.87E-05,2.96E-05,7.48E-05,9.39E-05,6.95E-05,0\nSRI-1052785-001.txt,Cc1oc2cc3oc(=O)c(CC(=O)N[C@@H](Cc4c[nH]c5ccccc45)C(O)=O)c(C)c3cc2c1C,0.9965189,1,0.996132112,0.988009546,0.969572611,0.943657759,0.909362482,0.868620724,0.821948204,0.770028248,0.717721504,0.670481694,0.6305393,0.598925758,0.575383211,0.560117945,0.551698841,0.549635967,0.552678706,0.559795621,0.570741745,0.584730608,0.601246492,0.619773677,0.639964054,0.661456621,0.68321994,0.704802757,0.725920138,0.746105359,0.7644211,0.779628347,0.792374329,0.802474675,0.809128732,0.813193883,0.811588709,0.807330164,0.798694459,0.785483041,0.767799055,0.746376111,0.721717033,0.693396354,0.661955579,0.629435662,0.595056581,0.560112788,0.52565377,0.492387351,0.462038609,0.435508763,0.41278105,0.39428223,0.379456613,0.367989613,0.359775508,0.35513791,0.353925971,0.355907619,0.360751505,0.367370751,0.374822883,0.382245361,0.389137938,0.394479492,0.39853175,0.402631711,0.408201471,0.416090674,0.425126061,0.432178511,0.434522451,0.431518391,0.425016471,0.417498585,0.41021793,0.403928743,0.398999764,0.394458863,0.390404027,0.38658771,0.382694036,0.378753947,0.374687507,0.37054113,0.366067273,0.36121823,0.356137114,0.350453897,0.344404519,0.337803323,0.330828231,0.323459904,0.315711234,0.307976746,0.299949589,0.292073278,0.284354262,0.277010432,0.270250652,0.263846718,0.258102904,0.25312751,0.248819972,0.24521381,0.242231668,0.239895464,0.23805177,0.23671477,0.235933457,0.235413871,0.235150854,0.23504771,0.235162458,0.235078654,0.235064471,0.235096704,0.234926517,0.234577117,0.233838351,0.233053169,0.231912142,0.230403666,0.228389785,0.22612836,0.223549767,0.220599858,0.217521019,0.214501487,0.21125504,0.207690136,0.203556652,0.199051852,0.194158973,0.188969556,0.183658945,0.177995067,0.172301535,0.166236686,0.160155077,0.15381174,0.147478717,0.141064469,0.13450453,0.128207608,0.123778875,0.121122925,0.117100321,0.108806279,0.099247438,0.09070843,0.08409434,0.079347152,0.075737123,0.072561586,0.069344793,0.065872718,0.062109263,0.057988672,0.053433589,0.048330555,0.042479729,0.03603067,0.029502963,0.024211692,0.020544934,0.017783262,0.015283316,0.013039941,0.01111889,0.009313875,0.007690651,0.006267269,0.004985708,0.00382792,0.002846766,0.001953284,0.001202913,0.000558265,0\nSRI-1052998-001.txt,COc1ccc2n(CC(=O)N[C@@H](Cc3c[nH]c4ccccc34)C(O)=O)ccc2c1,0.993527102,1,0.997754714,0.985173019,0.960050084,0.924449146,0.878592711,0.823411258,0.760765744,0.692254166,0.62364145,0.559802496,0.503731019,0.45615522,0.418046034,0.388108882,0.365049184,0.346985754,0.332765606,0.321276213,0.311769144,0.30341506,0.296092595,0.289114002,0.282519737,0.276026612,0.26977622,0.263343778,0.256951791,0.250656898,0.244590579,0.238659787,0.233121413,0.22770643,0.222853779,0.218088108,0.213700697,0.209709751,0.205765329,0.202496516,0.199937698,0.197674207,0.196031709,0.195060774,0.194627899,0.19465015,0.195107298,0.195958889,0.196976348,0.198347793,0.200095475,0.201970593,0.203738503,0.204606276,0.204052034,0.201691449,0.198289132,0.195418807,0.194302232,0.195279235,0.196763956,0.196545495,0.193135087,0.186609597,0.177737682,0.167025036,0.156146522,0.146714296,0.140490201,0.137375119,0.135787236,0.132482012,0.124702398,0.112250161,0.097245175,0.082096572,0.068272889,0.056427486,0.046578568,0.038341805,0.031452215,0.02550524,0.020666749,0.016613097,0.013281577,0.01064994,0.00836622,0.006636743,0.005313845,0.004272113,0.003284996,0.002696366,0.002186626,0.00176791,0.001417969,0.001268283,0.001029595,0.000906206,0.000849568,0.00075652,0.00070595,0.000568401,0.000548174,0.000529969,0.000548174,0.000432875,0.000366123,0.00041467,0.000434898,0.000295326,0.000277121,0.000285212,0.000303417,0.000277121,0.000356009,0.000351964,0.000358032,0.000293303,0.000275098,0.000279144,0.000277121,0.000210369,0.000206324,0.000273075,0.000202278,0.000143617,0.000258916,0.000260939,0.00030544,0.000194187,0.000188119,0.000204301,0.000242734,0.000271053,0.00018205,0.000238688,0.000214415,0.000161822,9.51E-05,0.000149686,0.000192164,9.51E-05,0.000153731,0.000137549,8.9E-05,0.00012339,0.000139572,0.000133504,0.00012339,0.000101139,8.5E-05,7.48E-05,6.27E-05,5.46E-05,5.06E-05,5.66E-05,6.07E-05,6.07E-05,5.66E-05,5.46E-05,6.07E-05,6.88E-05,7.69E-05,7.89E-05,6.47E-05,3.84E-05,1.82E-05,0.000103162,0.000133504,3.84E-05,9.71E-05,7.89E-05,0.000131481,0.000103162,0.000105185,1.82E-05,0.000103162,3.44E-05,0,8.5E-05,5.66E-05\nSRI-1052988-001.txt,CCOC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)COc1ccc(CC)cc1,0.998360486,1,0.99207568,0.969668982,0.932233401,0.880315443,0.812822096,0.733578896,0.645318366,0.55405206,0.465245025,0.384362311,0.313316683,0.253747657,0.205190703,0.167317918,0.137888633,0.115481935,0.098376334,0.085533471,0.076051612,0.0690017,0.063618627,0.059629142,0.056869292,0.055093152,0.054136768,0.053945492,0.054328045,0.055339079,0.056923943,0.059164613,0.061678535,0.06481274,0.068430602,0.072502063,0.076961542,0.081702472,0.086861477,0.092170772,0.097750586,0.103666501,0.109568753,0.11572513,0.121903367,0.128305671,0.134686115,0.141044699,0.147039857,0.152641531,0.157710363,0.162555129,0.167096584,0.171181707,0.174693001,0.177130412,0.178351851,0.178914751,0.178843705,0.178723474,0.178764462,0.178789055,0.178698881,0.17740913,0.173509818,0.165601893,0.154863073,0.143804548,0.135213492,0.130609189,0.128420437,0.124999317,0.117069532,0.104404282,0.089052962,0.073712571,0.060049951,0.048737301,0.039452184,0.031948672,0.025595554,0.02038463,0.016160148,0.012867456,0.009990108,0.007681125,0.006047076,0.004765522,0.003699838,0.002931998,0.002265263,0.001787071,0.001464633,0.001210508,0.000926326,0.000882605,0.000715921,0.000644876,0.000568365,0.000521912,0.000423541,0.000360693,0.000437204,0.000420809,0.000379821,0.000278717,0.000322438,0.000300578,0.000245927,0.000256857,0.0003361,0.000366158,0.000202207,0.000204939,0.000243195,0.000183079,0.0002268,0.000139359,0.000153021,0.000207672,0.000278717,0.000234997,6.83E-05,0.000109301,0.000240462,0.000224067,0.000142091,0.000347031,0.000319705,7.92E-05,2.73E-05,0.000297845,0.000183079,0.00023773,0.00030331,0.00023773,0.000163951,9.29E-05,0.000224067,0.000243195,0.000139359,0.000232265,0.000180347,0.000169416,0.000106568,0.0002268,0.00023773,9.02E-05,5.74E-05,3.83E-05,3.83E-05,4.1E-05,3.28E-05,2.19E-05,8.2E-06,0,2.73E-06,5.47E-06,2.73E-05,4.92E-05,6.56E-05,7.92E-05,9.02E-05,8.74E-05,8.2E-05,8.74E-05,0.000125696,0.000177614,5.19E-05,9.84E-05,0.000139359,0.000183079,0.000136626,0.000158486,0.000275985,0.000232265,0.000196742,0.000245927,0.000185812,0.000196742,0.000114766\nSRI-1053226-001.txt,CC[C@@H](C)[C@H](NS(=O)(=O)c1ccc(NC(C)=O)cc1)C(O)=O,0.156465239,0.136772977,0.124325981,0.117080715,0.114526294,0.115455175,0.119170696,0.124743977,0.132221464,0.14155671,0.152378166,0.164778717,0.178665478,0.194642219,0.212198056,0.231472322,0.252465016,0.274804587,0.29890903,0.325103454,0.352644754,0.381997371,0.412743309,0.445300562,0.479018917,0.514780807,0.550867806,0.587809375,0.626009577,0.664135468,0.702400691,0.739950676,0.77634885,0.811683456,0.845067413,0.876579677,0.905008058,0.930668376,0.952798949,0.970600939,0.984682764,0.994115543,0.999939623,1,0.994463874,0.981677836,0.962515036,0.93758389,0.908927933,0.876389257,0.841923154,0.806272729,0.769716645,0.7325893,0.696400124,0.660373503,0.625145718,0.588733611,0.550435877,0.508352956,0.46188572,0.412608621,0.361701337,0.310854431,0.263026385,0.21810109,0.177230358,0.14105976,0.110230223,0.084356263,0.063516834,0.047089586,0.034805144,0.025771783,0.019348576,0.014676308,0.011355561,0.00888474,0.006938736,0.005684747,0.004839466,0.003961674,0.003422924,0.002814507,0.002582287,0.002354712,0.001894916,0.001699851,0.001648762,0.00131901,0.001105368,0.001207544,0.001175034,0.000942813,0.000882436,0.000822059,0.000715238,0.000961391,0.000557328,0.000455151,0.000510884,0.000538751,0.000501595,0.000571261,0.000715238,0.000599128,0.000733815,0.000575906,0.00058055,0.000548039,0.000617705,0.000757037,0.000784904,0.000431929,0.000334397,0.000520173,0.000427285,0.000292597,0.000617705,0.000339041,0.000538751,0.000659505,0.000678083,0.000724527,0.000840637,0.000608417,0.000552684,0.000608417,0.00062235,0.000585195,0.000571261,0.000650216,0.000575906,0.000571261,0.000571261,0.000441218,0.000534106,0.000441218,0.000376197,0.000404063,0.000329752,0.000366908,0.00015791,0.000352975,0.000404063,0.000408707,0.000445863,0.000417996,0.000311175,0.000171843,8.82E-05,4.64E-05,1.86E-05,0,4.64E-06,3.72E-05,7.43E-05,0.000111466,0.000143976,0.000167198,0.000195065,0.000213642,0.000227576,0.000213642,0.000185776,0.000181132,0.000311175,0.000422641,0.000436574,0.000148621,6.97E-05,0.000246153,0.000287953,0.000385485,0.000315819,0.000246153,0.000185776,0.000111466,0.000106821,5.57E-05,0.000143976\nSRI-1053236-001.txt,OC(=O)CCCNS(=O)(=O)c1ccc(cc1)C1CCCCC1,0.661163802,0.709900515,0.75786363,0.805826745,0.851469064,0.892469791,0.928828926,0.959772871,0.982207232,0.995358408,1,0.99458481,0.979499636,0.95482184,0.919932542,0.877152538,0.82532143,0.767533613,0.706574041,0.641514397,0.575371714,0.508996952,0.443395789,0.381430539,0.32449368,0.273126731,0.229186329,0.192130955,0.161805889,0.137282812,0.118020206,0.102958241,0.091346526,0.082782789,0.077073631,0.072695063,0.06957746,0.066405706,0.062553185,0.057927065,0.054051336,0.051738276,0.050647502,0.050129191,0.048612938,0.046137422,0.043220955,0.04070676,0.038308604,0.036591215,0.034510235,0.032197175,0.030131666,0.028538053,0.027261616,0.025582907,0.022326056,0.018752031,0.015673108,0.012803057,0.010930949,0.009646775,0.008532793,0.008362601,0.008292977,0.007759194,0.007890706,0.00799901,0.007619946,0.007264091,0.007287299,0.007472963,0.00792165,0.007937122,0.007596739,0.007697306,0.007735986,0.007797874,0.007991274,0.007658626,0.008053162,0.00780561,0.007743722,0.007983538,0.008254297,0.008184673,0.007913914,0.00780561,0.007751458,0.007759194,0.007550323,0.007178995,0.007171259,0.007248619,0.007511643,0.007240883,0.007395603,0.006776724,0.00659106,0.006505964,0.006304829,0.006080485,0.005948973,0.005461606,0.005624062,0.005128959,0.005144431,0.004749896,0.004494608,0.004293472,0.003829313,0.003682329,0.003357418,0.002815899,0.003024771,0.002769483,0.002583819,0.002320796,0.002142868,0.001926261,0.001864373,0.00102115,0.001129454,0.000696239,0.000850958,0.000742655,0.000440951,0.000796807,0.001090774,0.000936054,0.000997942,0.000990206,0.000936054,0.00090511,0.000789071,0.000990206,0.000966998,0.000425479,0.000495103,0.000711711,0.000642087,0.000734919,0.000146984,0.000618879,0.000533783,0.000510575,0.000464159,0.000340383,0.000185664,8.51E-05,5.42E-05,3.09E-05,2.32E-05,7.74E-06,0,0,5.42E-05,0.00011604,0.000162456,0.000201136,0.000239816,0.000286231,0.000317175,0.000332647,0.000293967,0.000224344,0.000348119,0.000433215,0.000239816,0.00023208,0.000185664,0.000487367,0.000379063,0.00023208,0.000456423,0.000286231,0.000286231,0.000533783,0.000286231,0.000100568,0.000162456\nSRI-1053038-001.txt,CSCC[C@H](NC(=O)CCCn1c(=O)[nH]c2ccccc2c1=O)C(O)=O,1,0.967085236,0.920281583,0.854642314,0.785197869,0.711187215,0.635464231,0.563736682,0.496575342,0.436643836,0.382420091,0.337899543,0.300608828,0.271499239,0.248668189,0.230593607,0.217846271,0.208713851,0.201864536,0.195776256,0.191400304,0.187785388,0.184170472,0.181126332,0.176940639,0.170281583,0.162309741,0.151940639,0.139592846,0.125285388,0.111168189,0.097012938,0.082629376,0.068664384,0.056373668,0.045871385,0.035901826,0.029547184,0.02402968,0.018854642,0.016362253,0.013451294,0.011605784,0.01033105,0.009512938,0.008980213,0.007191781,0.007876712,0.008028919,0.007343988,0.007039574,0.007420091,0.007876712,0.008295282,0.008770928,0.009113394,0.009265601,0.009969559,0.010197869,0.011967275,0.013242009,0.013888889,0.014630898,0.016019787,0.017256469,0.019101979,0.021118721,0.02292618,0.024277017,0.026350837,0.028139269,0.029718417,0.032210807,0.034722222,0.036605784,0.038318113,0.040715373,0.044501522,0.04598554,0.048458904,0.051103501,0.052891933,0.055098935,0.056830289,0.058618721,0.061092085,0.063127854,0.065068493,0.066038813,0.067484779,0.068664384,0.069634703,0.068721461,0.069349315,0.06891172,0.068474125,0.06706621,0.065715373,0.064687976,0.063679604,0.061510654,0.0597793,0.058390411,0.056544901,0.053481735,0.050190259,0.048059361,0.043854642,0.039364536,0.034741248,0.030498478,0.027054795,0.023173516,0.020072298,0.016286149,0.013013699,0.011339422,0.008999239,0.007115677,0.006050228,0.004927702,0.004394977,0.004280822,0.003671994,0.002473364,0.002606545,0.002435312,0.001978691,0.001997717,0.00152207,0.00119863,0.001712329,0.001598174,0.000856164,0.000380518,0.000742009,0.000799087,0.001179604,0.000589802,0.000837139,0.001122527,0.000856164,0.000742009,0.000399543,0.000380518,0.000418569,0.000627854,0.000703957,0.000627854,0.000532725,0.00055175,0.00055175,0.000494673,0.000399543,0.000304414,0.000190259,9.51E-05,7.61E-05,9.51E-05,0.000114155,0.000152207,0.000190259,0.000209285,0.000247336,0.000342466,0.000418569,0.000133181,0.000665906,0.000418569,7.61E-05,0.000742009,0.001065449,0.00087519,0.000171233,0,0,0.000152207,0.000627854,5.71E-05,5.71E-05,0.000209285\nSRI-1053122-001.txt,C[C@H](NC(=O)OC(C)(C)C)C(=O)Nc1ccc(Oc2ccccc2)cc1,0.502714683,0.490882033,0.482690198,0.476773874,0.472677956,0.471767752,0.472677956,0.47586367,0.480869791,0.489061625,0.499984071,0.514092231,0.530020798,0.549590181,0.571526093,0.595646495,0.622042406,0.650258725,0.679430759,0.710332179,0.741643191,0.773272774,0.804492766,0.835348676,0.864839281,0.892327437,0.917358042,0.94047722,0.960092113,0.976430272,0.988581493,0.996864348,1,0.99830247,0.992204104,0.981031352,0.964506601,0.94378126,0.918514001,0.889278254,0.85697512,0.823001761,0.786707383,0.749261597,0.709968097,0.669332047,0.627521834,0.586184926,0.545617141,0.506355498,0.468891508,0.431832559,0.394723548,0.358219823,0.323568363,0.292139025,0.264273134,0.240585079,0.220437717,0.202620477,0.185950094,0.170189914,0.155562938,0.142178391,0.131032945,0.120997947,0.112155317,0.104250197,0.097287137,0.090656302,0.084480569,0.078341245,0.072074491,0.066481288,0.060897188,0.055112843,0.049851864,0.045005029,0.040358438,0.036044072,0.031661441,0.02719234,0.023323973,0.019237158,0.015555384,0.012264997,0.009488875,0.007418161,0.005547692,0.004264305,0.003472428,0.002876244,0.00232102,0.001915979,0.001615612,0.001374408,0.001333449,0.001196918,0.001137755,0.000841939,0.000773673,0.000719061,0.000778224,0.000800979,0.000764571,0.000509714,0.000568877,0.000527918,0.000577979,0.000573428,0.000568877,0.000505163,0.000436898,0.00026851,0.000327673,0.000336775,0.000482408,0.000368633,0.00040049,0.000232102,0.000327673,0.000418694,0.000259408,0.000254857,0.000432347,0.000509714,0.000377735,0.000291265,0.000332224,0.000414143,0.00026851,0.000436898,0.000409592,0.000204796,0.000300367,0.000350428,0.000350428,0.000336775,0.000359531,0.000254857,0.00026851,0.000200245,0.000250306,0.000450551,0.000223,0.000127429,7.28E-05,9.1E-05,0.000113775,0.000127429,0.000118326,9.56E-05,9.56E-05,9.56E-05,7.74E-05,5.46E-05,4.1E-05,3.19E-05,3.64E-05,5.01E-05,5.46E-05,6.83E-05,8.65E-05,0.000118326,0.000118326,7.28E-05,0.000163837,0.000141082,0.000136531,9.56E-05,0.000122878,3.64E-05,0.000109224,0.000172939,0.000223,0.000354979,0.000386837,0.000213898,9.1E-05,0,0.000104673\nSRI-1053244-001.txt,CSCCC(NS(=O)(=O)c1ccc(F)c(C)c1)C(O)=O,0.990582932,0.99413363,0.999382487,1,0.995059899,0.98487094,0.968506854,0.940410028,0.906292454,0.864455971,0.81412869,0.75855255,0.699580091,0.636902557,0.571754971,0.507996789,0.445782389,0.386501173,0.332005681,0.282141534,0.237835001,0.200166728,0.168364826,0.141039891,0.11927257,0.101364703,0.087625046,0.077127331,0.069099667,0.06292454,0.058725454,0.056502408,0.055035816,0.054001482,0.054757935,0.055205632,0.056239965,0.057721996,0.059111399,0.059713474,0.061025689,0.062322465,0.062353341,0.064175003,0.065795974,0.066181919,0.066845745,0.066567865,0.064653575,0.062461405,0.058601951,0.053908855,0.050497098,0.049184883,0.049802396,0.049617142,0.046992713,0.040076572,0.031369643,0.02304866,0.015993578,0.0115938,0.008490799,0.006684575,0.005264295,0.004492405,0.004476967,0.002964061,0.003427195,0.003597011,0.003072125,0.003211066,0.003473509,0.004137335,0.003751389,0.003118439,0.003627887,0.003272817,0.003735952,0.003612449,0.003751389,0.003411757,0.003859454,0.004307151,0.004631345,0.004461529,0.003735952,0.004353464,0.004291713,0.004569594,0.004538718,0.004199086,0.004137335,0.003751389,0.004430653,0.003597011,0.003643325,0.003658763,0.003288255,0.002253921,0.002562678,0.003226504,0.002639867,0.002022354,0.001466593,0.001420279,0.001883414,0.001976041,0.001451155,0.001605533,0.001790787,0.001620971,0.001914289,0.002238483,0.001497468,0.001173274,0.002145856,0.000864518,0.001435717,0.001682722,0.001373966,0.001744473,0.002022354,0.001898851,0.003118439,0.002562678,0.001651846,0.002238483,0.002145856,0.001976041,0.002300235,0.002531802,0.00233111,0.001559219,0.001759911,0.002130419,0.002022354,0.001034334,0.001821662,0.002099543,0.001404841,0.002022354,0.001451155,0.00169816,0.00148203,0.001605533,0.001528344,0.001312214,0.00098802,0.00063295,0.000447697,0.000401383,0.000370508,0.00035507,0.000447697,0.000586637,0.000725577,0.000833642,0.000910831,0.000972582,0.001049772,0.001080647,0.001080647,0.001003458,0.00098802,0.001188712,0.001682722,0.001790787,0.000818204,0.001327652,0.000972582,0.000432259,0,0.000663826,0.001157836,0.00084908,0.000972582,0.00063295,0.001142398,0.000663826,0.001327652\nSRI-1053254-001.txt,CC(C)[C@H](NC(=O)[C@H](C)n1nnc2ccccc2c1=O)C(O)=O,0.988530027,0.993097256,0.996989781,1,0.999429096,0.995951774,0.986038811,0.971299117,0.951628892,0.927443338,0.900662767,0.872117585,0.839731779,0.800339428,0.752124021,0.696331166,0.634414071,0.570836166,0.509645676,0.454008522,0.405896916,0.36728307,0.336039071,0.31086741,0.291093384,0.27479668,0.261043093,0.248991836,0.237641234,0.227390918,0.217742647,0.209474924,0.202115457,0.195586396,0.189659378,0.183773881,0.177919523,0.171893895,0.166252329,0.160875455,0.156744188,0.154045371,0.152950274,0.1538222,0.156209615,0.160387592,0.165904597,0.172516699,0.179793125,0.187957047,0.196447941,0.205411128,0.214208235,0.223186992,0.231875107,0.240391951,0.248789425,0.256968917,0.264774727,0.27165671,0.27782247,0.282919082,0.286936168,0.289930817,0.291788849,0.292453173,0.292188481,0.291114144,0.289079651,0.286520965,0.283100733,0.278969467,0.273675633,0.268143058,0.262963405,0.257726662,0.252147376,0.247657998,0.244076875,0.240962855,0.237874785,0.234106821,0.230011885,0.22449488,0.217104273,0.208504388,0.199463351,0.190043441,0.181479886,0.173881678,0.167695158,0.163787063,0.161425598,0.16016961,0.158949953,0.156271895,0.151107813,0.142025255,0.130025898,0.115784448,0.100764492,0.085879477,0.071798917,0.059431069,0.048874541,0.039838694,0.032365046,0.026209667,0.021481547,0.017635732,0.014433482,0.012279618,0.010291836,0.008376713,0.007162246,0.005968538,0.005070662,0.003887335,0.003658973,0.002776668,0.002506786,0.002356275,0.002138294,0.001691951,0.001806132,0.00154144,0.001032817,0.001230038,0.001281938,0.001079527,0.001131427,0.001048387,0.000851165,0.000897876,0.000877116,0.000825215,0.000794075,0.000534573,0.000555334,0.000627994,0.000638374,0.000441153,0.000342542,0.000404823,0.000368492,0.000508623,0.000519003,0.000425583,0.000311402,0.000176461,9.34E-05,6.23E-05,2.6E-05,0,2.08E-05,7.27E-05,0.000108991,0.000145321,0.000171271,0.000197221,0.000217981,0.000238742,0.000243932,0.000212791,0.000186841,0.000233551,0.000337352,0.000352922,0.000435963,0.000342542,0.000155701,0.000129751,0.000264692,0.000259502,0.000410013,0.000223171,0.000410013,0.000311402,0.000326972,0.000197221,0.000321782\nSRI-1052882-001.txt,COc1ccc2c(C)c(CC(=O)N[C@H](Cc3c[nH]c4ccccc34)C(O)=O)c(=O)oc2c1,1,0.981583342,0.957786786,0.927784376,0.890415301,0.842889161,0.786433731,0.72227679,0.653231063,0.58206463,0.513532337,0.450804082,0.394616532,0.346465341,0.306372834,0.274160424,0.248957506,0.229737211,0.216298631,0.206766615,0.200605406,0.197457831,0.19640864,0.197524801,0.200203588,0.20451197,0.20978025,0.21594146,0.222310275,0.228944737,0.235559107,0.241789519,0.248095829,0.254346331,0.260893733,0.267289336,0.273193828,0.277191917,0.27790626,0.274260878,0.266275861,0.254594119,0.240570671,0.226243627,0.213226956,0.20281094,0.19556259,0.1916404,0.190593441,0.192127046,0.195582681,0.200533971,0.206581332,0.213296158,0.220102508,0.227118697,0.234134886,0.241711388,0.249629435,0.258159138,0.267112982,0.275917261,0.284324187,0.292054719,0.298144494,0.302921663,0.306147369,0.30977266,0.314864587,0.322253574,0.330325651,0.337002527,0.339647829,0.338165567,0.334238912,0.330120278,0.327086552,0.325657865,0.325427936,0.326166835,0.327914743,0.330071166,0.332754418,0.335113982,0.337522658,0.339859899,0.341728353,0.343391433,0.344514291,0.345429543,0.345764392,0.345905028,0.345346948,0.344427231,0.342971757,0.340882303,0.338393264,0.33491977,0.331169469,0.326863319,0.321682099,0.315880294,0.30958961,0.302830138,0.295657687,0.288032074,0.280247966,0.272189283,0.263994428,0.2559603,0.247517658,0.239237974,0.230942665,0.222435285,0.213849774,0.205150414,0.196196569,0.187316391,0.178367012,0.16918547,0.160030717,0.150985347,0.141937745,0.133070961,0.124411783,0.115928959,0.107700619,0.100019198,0.092770848,0.085980123,0.079743015,0.073925583,0.068293434,0.062717093,0.057817146,0.053031047,0.048642302,0.044356243,0.040518881,0.036976186,0.033696904,0.030513613,0.027633917,0.024968524,0.022544222,0.020515041,0.019206901,0.018481396,0.017501406,0.015655276,0.013512247,0.011563429,0.010150369,0.009235117,0.008612299,0.008098865,0.007605522,0.007089855,0.006551866,0.005982624,0.0053732,0.004674483,0.003897635,0.003096231,0.002339474,0.001797019,0.001504585,0.001386272,0.001147414,0.001058121,0.000870606,0.000674161,0.000517899,0.000491111,0.000491111,0.000397353,0.000292434,0.000167424,0.000174121,6.25E-05,0\nSRI-0000575.txt,CCN(CC)C(=O)N1CC2CCC(C1)N2C,1,0.921010945,0.84375,0.766849078,0.695564516,0.62139977,0.556955645,0.484302995,0.427275346,0.377664171,0.328125,0.285282258,0.247119816,0.210613479,0.183107719,0.155961982,0.133352535,0.115495392,0.098862327,0.082517281,0.06984447,0.060555876,0.050691244,0.042122696,0.03578629,0.030385945,0.027073733,0.022537442,0.018073157,0.016921083,0.014040899,0.013032834,0.01015265,0.011016705,0.010728687,0.006120392,0.00921659,0.007848502,0.009576613,0.00734447,0.006912442,0.007560484,0.005616359,0.006264401,0.006048387,0.005616359,0.006912442,0.006480415,0.006120392,0.007560484,0.005184332,0.006552419,0.005616359,0.002952189,0.00374424,0.003960253,0.005184332,0.004032258,0.004248272,0.004320276,0.002232143,0.00187212,0.005112327,0.004896313,0.003168203,0.003456221,0.005040323,0.004464286,0.004608295,0.004392281,0.001800115,0.001944124,0.003960253,0.004464286,0.005688364,0.005760369,0.000792051,0.003312212,0.007272465,0.0046803,0.00280818,0.005112327,0.005400346,0.005976382,0.004032258,0.001800115,0.004176267,0.004104263,0.00453629,0.006264401,0.005904378,0.005400346,0.003168203,0.002664171,0.004032258,0.001080069,0.005256336,0.00093606,0.001800115,0.002376152,0.003456221,0.001080069,0.002088134,0.005760369,0.004104263,0.00374424,0.002520161,0.004248272,0.002304147,0.003960253,0.003384217,0.002592166,0.003024194,0.004248272,0.003528226,0.00187212,0.004032258,0.004104263,0.003096198,0.004392281,0.004248272,0.002088134,0.005328341,0.003024194,0.005760369,0.00453629,0.00187212,0.00453629,0.004752304,0.003240207,0.006840438,0.005184332,0.003096198,0.003672235,0.003960253,0.002016129,0,0.002232143,0.002664171,0.003456221,0.003240207,0.004248272,0.002232143,0.000792051,0.003384217,0.004104263,0.00360023,0.002952189,0.00280818,0.002376152,0.00187212,0.001368088,0.001224078,0.001080069,0.000864055,0.001008065,0.001152074,0.001080069,0.001224078,0.001368088,0.001440092,0.001440092,0.001296083,0.000792051,0.000288018,0.001152074,0.002736175,0.004320276,0.003168203,0.001512097,0.001800115,0.004896313,0.00360023,0.004824309,0.005400346,0.004320276,0.001584101,0.001224078,0.003096198,0.004032258,0.00453629\nSRI-1052943-001.txt,COc1ccc(cc1)S(=O)(=O)N1Cc2ccccc2CC1C(=O)N1CCCCC1,1,0.981818182,1,0.981818182,0.963636364,0.981818182,0.963636364,0.927272727,0.890909091,0.854545455,0.818181818,0.763636364,0.730909091,0.687272727,0.66,0.623636364,0.605454545,0.583636364,0.574545455,0.569090909,0.563636364,0.558181818,0.569090909,0.574545455,0.569090909,0.567272727,0.556363636,0.534545455,0.525454545,0.536363636,0.547272727,0.556363636,0.560909091,0.569090909,0.574727273,0.573454545,0.566727273,0.570545455,0.574,0.576727273,0.580181818,0.576909091,0.572363636,0.573636364,0.573090909,0.565818182,0.556727273,0.553090909,0.534909091,0.529636364,0.51,0.491636364,0.471636364,0.454,0.438363636,0.416,0.396181818,0.379090909,0.357454545,0.332727273,0.310363636,0.286,0.261818182,0.229454545,0.209818182,0.220545455,0.225454545,0.219454545,0.229454545,0.240909091,0.232363636,0.235272727,0.246727273,0.247090909,0.245090909,0.25,0.251818182,0.246,0.248909091,0.251090909,0.244,0.243090909,0.244545455,0.239454545,0.233454545,0.227272727,0.220545455,0.212545455,0.200181818,0.194727273,0.184181818,0.178545455,0.172,0.162727273,0.146181818,0.143090909,0.13,0.129636364,0.120545455,0.103272727,0.094727273,0.089272727,0.074363636,0.077454545,0.083818182,0.074909091,0.064727273,0.069818182,0.066363636,0.052,0.044181818,0.034727273,0.048181818,0.043454545,0.036909091,0.035454545,0.024363636,0.020363636,0.027818182,0.015090909,0.02,0.014,0.024181818,0.018545455,0.018363636,0.018363636,0.012545455,0.028,0.010545455,0.019090909,0.018727273,0.02,0.011090909,0.004909091,0.017090909,0.012181818,0.017636364,0.013272727,0.015818182,0.013090909,0.010363636,0.008,0.009090909,0.015272727,0.009272727,0.011636364,0.012545455,0.012181818,0.009454545,0.005272727,0.004,0.003090909,0.001818182,0.000727273,0.000727273,0.001818182,0.003090909,0.004,0.004909091,0.005818182,0.006545455,0.007454545,0.008,0.008363636,0.007818182,0.007272727,0.007818182,0.009454545,0.010909091,0.006363636,0.013818182,0.008181818,0.010181818,0.007636364,0.013818182,0,0.014,0.013636364,0.017090909,0.008181818,0.014545455\nSRI-000522.txt,ClC1=CC=CC=C1N1CCNCC1,0.912762842,0.846758725,0.799261488,0.772997292,0.755097677,0.740098893,0.73452577,0.736409597,0.745414091,0.76057775,0.781453289,0.80698289,0.835916113,0.866506253,0.896887442,0.925343994,0.950179812,0.970609697,0.985770092,0.993930618,0.998398584,1,0.996251936,0.987262134,0.97310895,0.953691173,0.92892555,0.898598231,0.862810427,0.821867404,0.776510285,0.727671189,0.676672386,0.637766637,0.598942511,0.548346918,0.499831043,0.454459232,0.412765291,0.375154061,0.341728386,0.312372364,0.2868346,0.264710252,0.245829545,0.229748459,0.216098063,0.207441277,0.199943518,0.191685045,0.185129199,0.180071925,0.176301007,0.173458944,0.171181701,0.16924074,0.167345486,0.165172719,0.162637553,0.159455943,0.156630204,0.153293513,0.148152985,0.142227257,0.1355098,0.128261803,0.120514281,0.112459863,0.104229141,0.09598536,0.087774228,0.079721442,0.071890666,0.068074041,0.06066933,0.053675992,0.047200135,0.04120911,0.035693122,0.030776238,0.026368672,0.0225145,0.019174545,0.016236167,0.013696103,0.012540341,0.010579791,0.008890224,0.007470008,0.006301187,0.005315198,0.00443695,0.003774182,0.00316855,0.002784929,0.002424161,0.002019318,0.001950756,0.001702626,0.001513264,0.001323902,0.001198205,0.001079037,0.000985989,0.000943546,0.000826011,0.000780302,0.000674194,0.0007852,0.000804789,0.000679092,0.000525643,0.000621957,0.000510951,0.000599102,0.000592573,0.000607265,0.000652973,0.000713373,0.00065787,0.000731329,0.000773773,0.000773773,0.000827643,0.00089294,0.00089947,0.000979459,0.000985989,0.000984356,0.000984356,0.001030064,0.000972929,0.000910897,0.000935383,0.000881513,0.000871719,0.000850497,0.000826011,0.000732962,0.000688886,0.000641546,0.00059747,0.000520746,0.000546865,0.000419535,0.000437492,0.000452184,0.00034934,0.000257924,0.000391784,8.98E-05,0.000364032,0.000153449,0.000285676,0.000342811,0.000179568,0.000279146,0.000275881,0.000264454,0.000156713,0.00041627,0.000173038,0.000427697,0.000124065,0.000452184,0.000212216,0.000192627,0.000212216,0.000133859,0.000350973,0.000243232,0.000239967,0.0001812,0.000442389,5.55E-05,0.000359135,0.000133859,0.000111005,0.000217113,0,0.000313427\nSRI-1053007-001.txt,CC(C)C[C@H](N1Cc2ccccc2C1=O)C(=O)NCCc1c[nH]c2ccccc12,0.971338492,0.985669246,1,0.985669246,0.971338492,0.942676985,0.914015477,0.856692462,0.813700201,0.742046432,0.670392663,0.613069647,0.555746632,0.482659788,0.438234451,0.39810834,0.35798223,0.326454572,0.297793064,0.287761536,0.273430782,0.26483233,0.270564632,0.271997707,0.280596159,0.289194612,0.299226139,0.313556893,0.329320722,0.346517627,0.368013758,0.389509888,0.408856406,0.427629693,0.436371453,0.447406134,0.457580969,0.465176268,0.467325881,0.468042419,0.475637719,0.475494411,0.471195185,0.454284895,0.43250215,0.405846948,0.36901691,0.336772714,0.304671826,0.274863858,0.251648037,0.23688736,0.226855833,0.214531384,0.209372313,0.1996274,0.190455718,0.185869877,0.186299799,0.181857266,0.175838349,0.174261966,0.183147034,0.180567498,0.177701347,0.174118659,0.172542276,0.168529665,0.169819433,0.170679278,0.171539123,0.163657208,0.168959587,0.166523359,0.155058756,0.144597306,0.136572084,0.134279163,0.135998854,0.127543709,0.119231872,0.128116939,0.120521639,0.117225566,0.11292634,0.113069647,0.11464603,0.109916882,0.11349957,0.110060189,0.113069647,0.120664947,0.122527945,0.124104328,0.136428776,0.140154772,0.147320149,0.142877615,0.149756377,0.154772141,0.162367441,0.173258813,0.18099742,0.180710805,0.183576956,0.182860418,0.186299799,0.189595873,0.19733448,0.19905417,0.192462024,0.190599026,0.190455718,0.18916595,0.188879335,0.190169103,0.190599026,0.186299799,0.174261966,0.163657208,0.151619375,0.145457151,0.128976784,0.112066495,0.088277443,0.072083692,0.060762396,0.058326168,0.043995414,0.034823732,0.022785899,0.017196905,0.015190599,0.009601605,0.007165377,0.004012611,0.006735454,0.005015764,0.006018917,0.0075953,0.006305532,0.005588994,0.008311837,0.006592147,0.003582688,0.001433075,0.002579536,0.00057323,0.000429923,0.000429923,0,0.000859845,0.00114646,0.001003153,0.00057323,0.001003153,0.001433075,0.00171969,0.00171969,0.001576383,0.002292921,0.003009458,0.003725996,0.004155919,0.003869304,0.003582688,0.006162224,0.01103468,0.005875609,0.004585841,0.008455145,0.012324448,0.007165377,0,0.005588994,0.005445686,0.003582688,0.007165377,0.008455145,0.007881915,0.00114646\nSRI-000523.txt,ClC1=CC(=CC=C1)N1CCNCC1,0.396736441,0.330870496,0.285652391,0.263061285,0.249827593,0.242995398,0.246974222,0.260105367,0.281837642,0.311342981,0.348308615,0.391598836,0.440116391,0.492266674,0.546183328,0.60034866,0.65318088,0.70383654,0.751467063,0.784902516,0.816058862,0.854190968,0.888323741,0.918323869,0.944386192,0.96628767,0.98343353,0.994913668,1,0.997610655,0.98713035,0.967892531,0.939886942,0.913681053,0.882388833,0.835040314,0.781987617,0.724863805,0.665507031,0.605570866,0.546706318,0.490238806,0.437001525,0.387486701,0.342137849,0.301075462,0.264489252,0.239685693,0.217961109,0.192716599,0.171981593,0.155833002,0.143850384,0.135310782,0.129970646,0.126804507,0.12559958,0.125635471,0.126476357,0.127837668,0.129124633,0.130388525,0.132088242,0.133554664,0.13484932,0.135549203,0.135920936,0.135969646,0.135305654,0.134216092,0.132536885,0.130370579,0.127637701,0.126086678,0.122577006,0.118536654,0.114052786,0.10908182,0.103728866,0.098124672,0.092238473,0.086239473,0.080173817,0.07407227,0.068114289,0.065135298,0.059377283,0.053847436,0.048373989,0.043272275,0.038647405,0.034191737,0.030182149,0.026423801,0.023029495,0.019978721,0.017779088,0.015979388,0.013705408,0.011610885,0.009867586,0.008270416,0.006980888,0.00579647,0.004735108,0.00399677,0.003319959,0.002899517,0.002594439,0.00217656,0.001825337,0.001507441,0.001445913,0.001210055,0.001104944,0.001035725,0.001015215,0.001030597,0.00115109,0.001138272,0.001076744,0.001163909,0.001179291,0.001302347,0.001327984,0.001404894,0.00140233,0.001407458,0.00152795,0.001156218,0.001535641,0.001338238,0.001333111,0.001333111,0.001404894,0.001266456,0.001194673,0.001251074,0.001058798,0.00094856,0.00092805,0.000820376,0.00072552,0.00080243,0.000705011,0.000699883,0.000666556,0.000458898,0.000458898,0.000620409,0.000366606,0.000622973,0.000366606,0.000456334,0.000558881,0.00022304,0.00047428,0.00067681,0.00039737,0.00029995,0.000448643,0.000384551,0.0005999,0.000381988,0.000374297,0.000269186,0.000294823,0.000248677,0.000228167,0.000335841,0.000110238,0.000256368,0.000199967,7.69E-05,0.000161512,0,0.000187148,4.61E-05,7.69E-05,0.000230731,7.69E-06\nSRI-0000574.txt,CS\\C(N)=N\\C(=S)NC1=CC=CC=C1,0.664530037,0.65810587,0.6523955,0.645257538,0.637405779,0.628126428,0.61813328,0.607426336,0.596362494,0.584513476,0.571879283,0.558674052,0.545897099,0.531835313,0.518130425,0.503640361,0.489435815,0.47515989,0.460527067,0.446179762,0.43140418,0.416914116,0.403280608,0.390218136,0.378297739,0.368161832,0.359382138,0.352458314,0.347033463,0.343535861,0.341530094,0.34063071,0.341237437,0.343100445,0.346141217,0.349860096,0.354378426,0.359981727,0.366677136,0.373622373,0.3819381,0.391281693,0.401160633,0.411696265,0.423288317,0.435651268,0.449020672,0.463160975,0.478015075,0.494111181,0.510806875,0.528530436,0.547481727,0.566932675,0.587026039,0.608018787,0.629839539,0.651517531,0.673859354,0.69671511,0.719585142,0.743076176,0.766024726,0.788980413,0.812093136,0.835055962,0.856526953,0.878297739,0.898398241,0.917113979,0.933966709,0.949142017,0.963253769,0.974788716,0.984382138,0.99239807,0.997416058,1,0.999321894,0.995845706,0.989507195,0.980192154,0.9679791,0.95242548,0.935287232,0.915829146,0.893515875,0.870396014,0.846562357,0.822357526,0.796917828,0.771742234,0.746623744,0.722083429,0.698278323,0.675522499,0.653280608,0.632009479,0.611402181,0.591737095,0.572129111,0.554027238,0.535868262,0.518458771,0.501534662,0.484003826,0.467308132,0.450619575,0.433574121,0.416814185,0.400796597,0.384464938,0.368375971,0.352215624,0.336604899,0.320808588,0.305390589,0.290022556,0.27518987,0.260307218,0.246066983,0.232854614,0.219092622,0.205559045,0.193310302,0.180726074,0.168998401,0.158155836,0.147548824,0.137377227,0.128554705,0.120053392,0.11158063,0.103600388,0.096162631,0.089431533,0.082486295,0.076526096,0.071058417,0.065697807,0.060622716,0.056118661,0.051992919,0.048259765,0.044833543,0.041742805,0.039665658,0.038509308,0.03696037,0.033990978,0.030507652,0.027331259,0.024990007,0.023433931,0.022334685,0.021413888,0.020514504,0.019543741,0.018508737,0.017388077,0.016153209,0.014739893,0.013126713,0.01134936,0.009557732,0.008201519,0.007459171,0.006752513,0.005903095,0.005417714,0.0046254,0.003933017,0.003290601,0.002776667,0.002798081,0.002070009,0.001798767,0.001556076,0.000899383,7.14E-06,0\nSRI-1053361-001.txt,CC(C)Oc1ccc(cc1)S(=O)(=O)CCC(O)=O,0.144816697,0.159273696,0.176493808,0.196378349,0.219075344,0.244880841,0.272808013,0.304633147,0.339270736,0.376918143,0.417772734,0.461291755,0.509054127,0.559135541,0.610006414,0.661913455,0.713524449,0.764395322,0.812947155,0.858390487,0.899738491,0.93516554,0.964375586,0.98588839,0.9977303,1,0.992056052,0.973010312,0.943711452,0.90303449,0.851458035,0.792179405,0.726047269,0.657142152,0.589643262,0.524833473,0.465239059,0.412167563,0.365125574,0.324729856,0.291503429,0.264262101,0.241273992,0.221251295,0.202644693,0.185370306,0.169393596,0.155800069,0.144801895,0.135412247,0.126594957,0.117299058,0.106962057,0.095337248,0.083371984,0.071988948,0.062194701,0.054842848,0.04981497,0.046464696,0.043153895,0.038417131,0.032150787,0.025726551,0.019904278,0.015039226,0.011392905,0.009167612,0.007702176,0.006483446,0.005763063,0.005205506,0.004869986,0.004223615,0.003705531,0.003004885,0.002649627,0.002008191,0.001820694,0.001598658,0.001110179,0.001174323,0.001337149,0.001243401,0.001149652,0.001253269,0.001026299,0.001273005,0.001391424,0.001100311,0.001430898,0.001406227,0.001031233,0.000972023,0.001129916,0.001031233,0.001228598,0.000996694,0.001065772,0.001090443,0.001100311,0.001213796,0.001006562,0.001085508,0.000912814,0.000996694,0.000952287,0.000675976,0.000824,0.000754922,0.00068091,0.000325653,0.000498347,0.000577293,0.000532886,0.000527952,0.000434203,0.000335521,0.000379928,0.000256575,0.000478611,0.000281245,0.000384862,0.000404599,0.000305916,0.000389796,0.000414467,0.00053782,0.000305916,0.000133221,0.000271377,0.000542754,0.000330587,0.000182563,0.000271377,0.000399664,0.00039473,0.000251641,9.87E-05,0.000212168,0.000192431,0.00022697,0.000281245,0.000217102,0.000217102,0.000197365,0.000177629,0.000172695,0.000162826,0.000103617,4.93E-05,1.48E-05,4.93E-06,0,0,0,0,0,0,4.93E-06,4.93E-06,9.87E-06,1.97E-05,5.43E-05,0.000128287,0.000177629,0.000123353,0.000212168,0.000300982,0.000152958,0.000177629,0.000360191,0.000157892,0.000123353,3.95E-05,0.000345389,0.00014309,0.000217102,0.00022697,0.000251641,0.000157892\nSRI-1053219-001.txt,Oc1ccc(Cl)cc1NC(=O)Cn1nnc2ccccc2c1=O,1,0.987568866,0.972826157,0.955797557,0.936508752,0.914291952,0.889249894,0.862743839,0.835441575,0.808293416,0.782069887,0.757104881,0.731805982,0.705171506,0.676790507,0.64607225,0.61466052,0.584122051,0.555484211,0.529517523,0.507018197,0.488166022,0.472806894,0.459733655,0.44840694,0.437876433,0.427012033,0.415120266,0.401969975,0.387735813,0.372641231,0.357438775,0.342197794,0.327218791,0.312632755,0.297566426,0.28169875,0.264097394,0.245496924,0.226362224,0.208257458,0.192243383,0.179149597,0.169649026,0.163148365,0.15960395,0.158466142,0.159367656,0.161843609,0.165670549,0.170470919,0.176018698,0.182036497,0.188670716,0.19557205,0.202771321,0.210301917,0.218012303,0.225851109,0.233684778,0.24136948,0.248702308,0.255572821,0.262168514,0.268147787,0.273662176,0.278526756,0.283334832,0.287518782,0.291237848,0.294692368,0.297260784,0.299107475,0.300029537,0.300101452,0.29900217,0.297242805,0.294910683,0.292105973,0.289072673,0.285433228,0.281318625,0.275814509,0.268820712,0.259453698,0.247934351,0.234701871,0.220326446,0.205406516,0.191059343,0.178019494,0.166947052,0.157937048,0.15065302,0.143982843,0.137107193,0.12884203,0.119048659,0.107562701,0.095036536,0.082245823,0.070140878,0.058875804,0.048997676,0.040593818,0.033433073,0.027566811,0.022689389,0.018839333,0.015685318,0.013047554,0.010887516,0.009189793,0.007723227,0.006639356,0.005629968,0.004713044,0.003968203,0.00351873,0.002892037,0.002509343,0.002139491,0.001877512,0.001695155,0.001381808,0.001284208,0.001104419,0.000904082,0.000999114,0.000883535,0.000767956,0.000708883,0.00076282,0.000644672,0.000613851,0.000621557,0.000495704,0.000367284,0.000403241,0.000452041,0.00037242,0.000305642,0.00035701,0.000349305,0.000344168,0.000344168,0.000339031,0.000305642,0.000256842,0.000202905,0.000156673,0.000115579,8.48E-05,7.45E-05,6.42E-05,7.71E-05,8.99E-05,0.000102737,0.000110442,0.00011301,0.00011301,0.000110442,0.000105305,8.99E-05,8.48E-05,0.000115579,0.000159242,0.000154105,0.000110442,0.000110442,0.000107873,9.5E-05,0.000197768,0.000197768,0.000141263,0,5.39E-05,9.25E-05,7.45E-05,2.57E-06,0.000102737\nSRI-1052866-001.txt,CC(Oc1ccc2ccc(=O)oc2c1)C(=O)NC(Cc1c[nH]c2ccc(O)cc12)C(O)=O,1,0.972845764,0.945691528,0.900434468,0.86422882,0.828023172,0.782766112,0.728457639,0.665097755,0.601737871,0.547429399,0.520275163,0.516654598,0.507603186,0.501267198,0.501267198,0.501267198,0.503982621,0.509413469,0.514844316,0.529326575,0.540188269,0.551955105,0.563721941,0.57096307,0.585445329,0.5935916,0.595401883,0.594496741,0.595401883,0.592686459,0.583997104,0.573769008,0.563631427,0.548062998,0.522990587,0.489862419,0.454652426,0.409757422,0.364500362,0.320601014,0.284395366,0.250814627,0.228729182,0.213794352,0.205104996,0.204290369,0.204561912,0.211440985,0.219134685,0.226375815,0.238414193,0.253439537,0.263758146,0.277878349,0.289735699,0.301230992,0.31589428,0.326846488,0.340785663,0.352643012,0.3673063,0.381607531,0.397809558,0.408490224,0.40993845,0.416727009,0.425868936,0.434015206,0.441799421,0.450398262,0.458363505,0.462617668,0.473388849,0.479815351,0.486332368,0.493030413,0.496017379,0.501176684,0.501176684,0.501810282,0.502262853,0.502986966,0.497827661,0.491401159,0.485698769,0.479091238,0.472393193,0.460173787,0.447139754,0.433200579,0.419170891,0.405865315,0.396632875,0.383508327,0.369207096,0.354815351,0.338341781,0.321868211,0.309015206,0.285572049,0.272085445,0.264391745,0.25307748,0.248099203,0.239319334,0.232892831,0.227099928,0.218682114,0.210535844,0.20628168,0.199131064,0.184196235,0.17641202,0.16980449,0.159757422,0.150072411,0.135952209,0.123913831,0.116129616,0.10852643,0.101104272,0.089880521,0.0782042,0.073406951,0.067614048,0.05865315,0.049601738,0.0467958,0.042360608,0.039554671,0.035209993,0.030865315,0.023986242,0.014210717,0.014391745,0.01185735,0.004435192,0.005883418,0.004706734,0.003801593,0.003439537,0.005249819,0.003892107,0.002624909,0.003620565,0.003349022,0.002986966,0.002986966,0.003439537,0.003892107,0.00416365,0.004073135,0.003892107,0.003620565,0.003258508,0.002986966,0.002624909,0.002262853,0.001991311,0.001900797,0.001810282,0.001991311,0.002262853,0.002353367,0.002081825,0.003349022,0.004254164,0.004344678,0.005611875,0.001448226,0.002624909,0,0.003439537,0.005521361,0.004435192,0.002353367,0.002443881,0.003167994,0.002443881,0.000271542\nSRI-1052876-001.txt,CSCC[C@H](NC(=O)Cc1csc(n1)-c1ccc(OC(F)(F)F)cc1)C(O)=O,0.683364365,0.679156629,0.67319567,0.664780198,0.653559569,0.640235072,0.624456062,0.606573185,0.586937084,0.565898404,0.544158435,0.521366532,0.498539565,0.475397017,0.452009019,0.428831407,0.405794052,0.383072278,0.361297245,0.340363759,0.320973109,0.303616198,0.288257962,0.275108788,0.26413361,0.255157106,0.247898762,0.242148189,0.237695002,0.234469071,0.231909365,0.230015884,0.228683434,0.227547346,0.226740863,0.226186845,0.225759058,0.225639839,0.225794122,0.226533983,0.22747371,0.229016547,0.231074831,0.233704666,0.237025271,0.24119093,0.246292809,0.252429091,0.259897822,0.268481603,0.278801076,0.290558191,0.303938791,0.318735996,0.334595654,0.351738672,0.3703018,0.389783617,0.410464639,0.431790847,0.453800813,0.476452458,0.500233179,0.524273377,0.549021877,0.573773883,0.599651459,0.625283584,0.651024408,0.676453159,0.702078271,0.727878705,0.753300443,0.777908685,0.802022518,0.825438569,0.848121772,0.870166802,0.891121327,0.910511976,0.928265115,0.944647234,0.958725617,0.971562718,0.981787516,0.989684034,0.995367984,0.998849886,1,0.998874431,0.995764213,0.99070441,0.983270743,0.973673599,0.96201817,0.94811511,0.931484033,0.911658584,0.889497842,0.864900119,0.837865416,0.808926712,0.777694792,0.745649376,0.712755401,0.679002346,0.645501755,0.6117487,0.57860226,0.545568027,0.512474184,0.479198006,0.446055072,0.412442275,0.378030008,0.343347745,0.308984568,0.275021126,0.241906245,0.20983979,0.179459937,0.151303171,0.125530788,0.102598628,0.082839801,0.065865093,0.051909435,0.040506471,0.03149841,0.02427513,0.018685854,0.014667466,0.0113679,0.008794168,0.006791987,0.005347331,0.004021894,0.003173334,0.002566719,0.001988155,0.00164803,0.001230763,0.001023882,0.000929208,0.000781938,0.000729341,0.000697783,0.000708302,0.000680251,0.000599602,0.000497915,0.000399735,0.000322593,0.000269996,0.000227919,0.000192855,0.000164803,0.000140258,0.000122726,0.000112206,9.82E-05,9.12E-05,9.47E-05,0.000122726,0.000147271,0.000161297,0.000150777,0.000101687,5.96E-05,0.000189348,8.42E-05,3.16E-05,2.81E-05,0.000147271,5.61E-05,6.66E-05,0.000119219,3.16E-05,2.45E-05,0,6.66E-05\nSRI-1052804-001.txt,OC1(NC(=O)NC(C1C(=O)c1cccs1)c1cccc(Oc2ccccc2)c1)C(F)(F)F,1,0.959921446,0.92340543,0.890451952,0.860170378,0.833451342,0.808513575,0.785357078,0.763536532,0.741715986,0.720385288,0.700346012,0.679772354,0.659109633,0.638580507,0.618095912,0.598323826,0.57881893,0.559002311,0.538918502,0.519413606,0.500042305,0.481027258,0.462591123,0.445134686,0.429147796,0.415788278,0.404922537,0.396595104,0.392355684,0.391807944,0.395339309,0.402655872,0.413975837,0.42822599,0.444956559,0.463650978,0.483026732,0.503377731,0.523514978,0.542948624,0.562373363,0.581717945,0.599949234,0.617178559,0.632003171,0.644917371,0.654576303,0.661438642,0.666096661,0.669561229,0.670006546,0.668309887,0.664163984,0.657030001,0.648070218,0.638709649,0.629170953,0.620251248,0.611166776,0.600795337,0.589853891,0.578248923,0.566572705,0.556236891,0.546818431,0.538295058,0.531254592,0.526093365,0.52310974,0.521399721,0.521840585,0.522664422,0.523889045,0.525180465,0.526578761,0.527456036,0.527282362,0.52643626,0.524686163,0.521929649,0.517765932,0.511994621,0.505167907,0.49656883,0.485921295,0.474596877,0.461985492,0.448140578,0.433079948,0.416946103,0.399752404,0.382349405,0.364122569,0.345575105,0.326840608,0.30828869,0.28963435,0.271340717,0.253425603,0.236049323,0.219750711,0.203590148,0.188440454,0.173954284,0.160723908,0.14829065,0.136480836,0.1252722,0.115083341,0.105553552,0.096469079,0.088377665,0.081096727,0.074345718,0.06771049,0.061903553,0.056711154,0.051808211,0.047319413,0.042933038,0.039219092,0.035344831,0.032111828,0.029386486,0.026576534,0.023668613,0.021388588,0.019340129,0.017621204,0.015982437,0.014446092,0.012958732,0.011725204,0.010736599,0.009543149,0.008510013,0.007917741,0.007022653,0.006421475,0.005878188,0.005161227,0.004666925,0.004226061,0.003762931,0.003371052,0.003063783,0.00287675,0.002627372,0.002213227,0.00176791,0.001384937,0.001135559,0.000993058,0.000908447,0.000832743,0.000765946,0.000694695,0.000610085,0.000521021,0.000423051,0.000302816,0.000213752,0.000151408,8.91E-05,4.45E-05,8.91E-06,0.000155861,0.000102423,0.000142502,8.02E-05,0.000338441,0.000293909,0.000240471,3.12E-05,0,2.23E-05,4.01E-05,0.000133595,0.00019594,0.000146955\nSRI-0000602.txt,CC12CC(O)C3C(CCC4=CC(=O)C=CC34C)C1CCC21OCOC11COCO1,0.445289805,0.466039563,0.487942085,0.512150136,0.537510951,0.561719002,0.589385346,0.615898926,0.64356527,0.673537142,0.70235625,0.732328123,0.760570849,0.789389957,0.817286854,0.844953198,0.869852907,0.894176235,0.915271822,0.935329921,0.953197768,0.96864481,0.980403006,0.989740397,0.996541707,0.999884724,1,0.997694471,0.992276479,0.98351547,0.971757274,0.957693549,0.941474155,0.923444921,0.903721123,0.882890672,0.860215797,0.838105778,0.815292572,0.791487988,0.76746438,0.742864389,0.719025222,0.69384885,0.668292064,0.642746807,0.616763499,0.590169226,0.562917877,0.535009453,0.506709088,0.478581639,0.450189053,0.421277724,0.392089731,0.363120764,0.334509153,0.305747683,0.277677872,0.250887629,0.224985014,0.200707797,0.177087656,0.155081385,0.135138562,0.116556001,0.099656476,0.085546641,0.072266796,0.061223314,0.051643842,0.043355466,0.037165122,0.03076728,0.025672062,0.022444321,0.018916863,0.01672661,0.014340388,0.012934016,0.011665975,0.010524738,0.00987919,0.009164476,0.008357541,0.007815742,0.007931019,0.007377692,0.007250888,0.007573662,0.007008807,0.006271038,0.006144234,0.006697561,0.006882003,0.006305621,0.005832988,0.005913681,0.006247983,0.005383409,0.005579379,0.005256605,0.005510213,0.005187439,0.00503758,0.005417992,0.00499147,0.004737861,0.004564947,0.004230645,0.00420759,0.003850233,0.003781067,0.003435238,0.003389127,0.003435238,0.003216212,0.003412182,0.002743579,0.002662886,0.003239268,0.003446765,0.002893438,0.002536082,0.00259372,0.00263983,0.001994282,0.001971227,0.001602342,0.001475538,0.001775257,0.001729146,0.001752202,0.001406372,0.001291096,0.000864573,0.000910684,0.001406372,0.001129709,0.001083598,0.001060543,0.000876101,0.000461106,0.000507216,0.000680131,0.000714714,0.000749297,0.000691659,0.000622493,0.000622493,0.000657076,0.00063402,0.00063402,0.000622493,0.000599437,0.00058791,0.000553327,0.000507216,0.000484161,0.000484161,0.000461106,0.000449578,0.000449578,0.000484161,0.000599437,0.000680131,0.000345829,0.000495689,0.000288191,0.000610965,0.000288191,0.000726242,0.000380412,0,0.000242081,0.000322774,0.000403468,0.000899156,0.000414995,0.000288191,0\nSRI-1053303-001.txt,OC(=O)C1CCCN1C(=O)Cn1nnc2ccccc2c1=O,0.991820573,0.995866933,0.998670482,1,0.999653169,0.994624122,0.984305905,0.968409492,0.947426226,0.922136478,0.893465129,0.863522067,0.829966184,0.789560392,0.741322004,0.684730773,0.622243417,0.558282031,0.496835169,0.440590769,0.39235238,0.352409029,0.319893639,0.293626983,0.272993439,0.256443828,0.242770022,0.230604931,0.219523686,0.209323969,0.199982658,0.191728085,0.184620943,0.178482037,0.173057025,0.16838926,0.163767739,0.159235816,0.154955346,0.150934998,0.147995607,0.146212318,0.145955085,0.147079395,0.149790456,0.153897511,0.159149108,0.165340039,0.172111911,0.179823116,0.187444724,0.195245527,0.203231307,0.211231538,0.219217318,0.226948756,0.234469204,0.241807567,0.248550536,0.254686552,0.260224284,0.26490939,0.26861181,0.270993381,0.272412497,0.272632157,0.27188358,0.270377757,0.268238966,0.265475881,0.262065378,0.258334056,0.253937975,0.249186393,0.244298968,0.239457788,0.235102171,0.231208994,0.227830284,0.224827307,0.221838781,0.218795341,0.214705627,0.209508945,0.202656146,0.194742623,0.185990925,0.177230556,0.168785225,0.161111593,0.155238591,0.151030377,0.148686378,0.147498483,0.146212318,0.143492586,0.138275673,0.129969074,0.118532328,0.10505795,0.09078008,0.076843261,0.063874678,0.052316541,0.042397179,0.034209081,0.027500795,0.022127807,0.017861788,0.014448394,0.011769126,0.009740166,0.008017573,0.006598457,0.005422122,0.00461574,0.003844042,0.003101246,0.002780427,0.002274632,0.001826642,0.001511604,0.001323738,0.001075176,0.000945114,0.000852626,0.000872858,0.000705223,0.000546259,0.00055782,0.0004451,0.000500014,0.000303477,0.000309257,0.000294806,0.000248562,0.000283245,0.000205208,0.000184976,0.000150293,0.000156074,0.000297696,9.25E-05,0.000124281,0.000121391,8.38E-05,6.36E-05,6.36E-05,5.49E-05,5.2E-05,4.34E-05,5.2E-05,5.49E-05,5.2E-05,4.34E-05,3.47E-05,3.76E-05,4.05E-05,4.34E-05,4.62E-05,4.62E-05,4.62E-05,4.05E-05,1.45E-05,1.16E-05,1.45E-05,0,0.000121391,0.000153184,0.000167635,4.62E-05,8.67E-05,7.51E-05,0.000132952,6.07E-05,8.09E-05,9.83E-05,0.000121391,5.49E-05,0.000101159,0.000101159\nSRI-1053313-001.txt,OC(=O)C1CCCN1S(=O)(=O)c1ccc(cc1)C(O)=O,0.69702982,0.72513729,0.751709477,0.777100679,0.800366106,0.822450546,0.842881606,0.860832595,0.87571302,0.890711544,0.901458518,0.911851196,0.921535282,0.929447889,0.937242397,0.946217892,0.954957189,0.962397402,0.969955713,0.97786832,0.985426631,0.992040154,0.997236492,0.99996457,1,0.997224683,0.990422203,0.981741955,0.969069973,0.953362858,0.933935636,0.912087393,0.888077945,0.861411278,0.832477118,0.802456451,0.771242988,0.739143785,0.706076174,0.672666076,0.639444937,0.606979628,0.575435489,0.544162976,0.514224978,0.484924712,0.457549454,0.431426041,0.40676705,0.384540892,0.363259522,0.343454384,0.324983761,0.307989371,0.292353115,0.278724535,0.265910836,0.255766165,0.247770889,0.239563035,0.232441689,0.224635371,0.21530558,0.204617656,0.193752583,0.183785061,0.175033953,0.16594036,0.157921464,0.150906407,0.140997933,0.129778565,0.116161795,0.101647476,0.086637142,0.071178034,0.058435193,0.04767641,0.038665486,0.031532329,0.025698258,0.022426926,0.019391792,0.01702982,0.014632418,0.013451432,0.012116918,0.01108946,0.009813995,0.008609389,0.008361382,0.00767641,0.00761736,0.00765279,0.007144966,0.006625332,0.006223797,0.006188367,0.005019191,0.004877473,0.004121642,0.003483909,0.003354001,0.002728078,0.002031296,0.001322704,0.001204606,0.001051078,0.000791261,0.000673162,0.000956599,0.001204606,0.000271627,0.000625923,0.000897549,0.001275465,0.001086507,0.001145557,0.000578683,0.000307056,0.000248007,0.000342486,0.00082669,0.000921169,0.000968409,0.000295247,0.000720402,0.000661352,0.000318866,0.000614113,0.000673162,0.001121937,0.00082669,0.000566873,0.000625923,0.000720402,0.000791261,0.000614113,0.000696782,0.000897549,0.000543254,0.000720402,0.000578683,0.000744021,0.000330676,0.000342486,0.000377916,0.000318866,0.000165338,9.45E-05,7.09E-05,0.000106289,0.000106289,0.000106289,9.45E-05,4.72E-05,0,1.18E-05,3.54E-05,7.09E-05,7.09E-05,9.45E-05,8.27E-05,7.09E-05,0.000129908,0.000177148,8.27E-05,0.000295247,0.000389725,0.000484204,7.09E-05,0.000165338,0.000188958,0.000401535,0.000401535,0.000177148,0.000472394,0.000732211,0.000566873,0.000566873,0.000531444\nSRI-1052761-001.txt,[O-][N+](=O)c1ccc(s1)C(=O)N(CCCCN1C(=O)c2ccccc2C1=O)c1ccc(F)cc1F,1,0.986470547,0.964962187,0.931658919,0.885866926,0.827933116,0.760632762,0.690904045,0.625685145,0.569485881,0.52646916,0.496981891,0.476167349,0.459168806,0.441129536,0.420731284,0.399986124,0.382016235,0.367029765,0.355928676,0.348608895,0.341636023,0.328939152,0.30545341,0.271144106,0.232429057,0.196385208,0.167279539,0.145667106,0.130507181,0.120342746,0.113612711,0.109311039,0.106709221,0.105307708,0.104846319,0.104936516,0.10549157,0.10644557,0.108100326,0.109820995,0.111843475,0.1140741,0.116446958,0.118903074,0.121463262,0.124231596,0.126829945,0.129650316,0.132460279,0.135287588,0.138052453,0.140668147,0.14305835,0.145205717,0.147332269,0.149316589,0.151238465,0.153420523,0.15552973,0.157815861,0.160178311,0.162669118,0.165413169,0.168282106,0.171286339,0.174210782,0.177058905,0.180160272,0.183213072,0.186297093,0.189342954,0.192361063,0.195427739,0.198157913,0.200700756,0.203215847,0.205619926,0.207899119,0.209817526,0.2117845,0.213553736,0.215250121,0.216714078,0.217792965,0.218691459,0.219135503,0.21948935,0.219593423,0.219662804,0.219583015,0.219465066,0.219281204,0.219506695,0.219711372,0.219957677,0.220516201,0.221203081,0.221633248,0.222216055,0.222909873,0.223548186,0.223898564,0.224127524,0.224321793,0.224304447,0.224089364,0.223582877,0.222840491,0.221914244,0.220550892,0.218979394,0.217262194,0.215097481,0.212603205,0.209897315,0.206754319,0.203642545,0.199722473,0.19584403,0.191583987,0.187025602,0.182318046,0.176982585,0.171477139,0.166030667,0.16029626,0.154315548,0.148390342,0.142884896,0.137292722,0.131745646,0.126077153,0.12017623,0.11449386,0.108745577,0.10316728,0.097821411,0.092517172,0.087115798,0.08207521,0.077142163,0.072583779,0.067997641,0.063668216,0.059748144,0.057135919,0.055623396,0.053503781,0.049347811,0.044494554,0.040067994,0.036775827,0.034531326,0.032907792,0.031534032,0.030142927,0.028672032,0.027093596,0.025376396,0.023485742,0.021327968,0.01884063,0.016138209,0.013432318,0.011316173,0.009841809,0.008693541,0.007569555,0.006667592,0.005828072,0.005009367,0.004180254,0.003458683,0.002952196,0.002313883,0.001685978,0.001255811,0.000756262,0.000339971,0\nSRI-0000372.txt,CSC(C1=NC2=C(N1)C=CC(C)=C2)C1=CC=CC=C1,1,0.983619984,0.96884236,0.953352562,0.937150589,0.91916818,0.897446854,0.871630524,0.844389844,0.812341986,0.774418687,0.734536908,0.690204038,0.643912687,0.595662857,0.546700851,0.500943631,0.457679023,0.419043549,0.384325036,0.35476979,0.330021721,0.309190614,0.292098423,0.278032974,0.266994267,0.258270128,0.251023751,0.246376812,0.242691308,0.238970195,0.236833672,0.235462735,0.234002777,0.234056191,0.234002777,0.23478617,0.236798063,0.239504326,0.243047395,0.24853114,0.254246341,0.262365132,0.270323683,0.27952854,0.291208204,0.305255849,0.319908842,0.336733967,0.355677812,0.375903572,0.39685931,0.416853613,0.436028914,0.456966848,0.480023502,0.505875441,0.53270662,0.559609016,0.583217605,0.60273119,0.611668981,0.612648221,0.60652352,0.598671794,0.596357227,0.600096144,0.605775736,0.60342556,0.588469893,0.557134209,0.511644055,0.454830324,0.396788092,0.337677599,0.282181391,0.23352206,0.189687711,0.153758502,0.12320621,0.098119859,0.077680447,0.062172845,0.049335897,0.038635473,0.031175444,0.025335612,0.020706477,0.017555105,0.014154471,0.011270163,0.009471923,0.008421465,0.007068333,0.005946658,0.005234483,0.00477157,0.004255243,0.004344265,0.003810134,0.003632091,0.003899156,0.002617242,0.001994089,0.002332372,0.00252822,0.001940676,0.000819001,0.001513371,0.001602393,0.00167361,0.001370936,0.000925827,0.001228501,0.001228501,0.000534131,0.000587544,0.001335327,0.000391696,0.001299719,0.001442154,0.000640957,0.001495567,0.001406545,0.001531175,0.001798241,0.001050458,0.001210697,0.000658762,0.000658762,0.001655806,0.001620197,0.001281914,0.001228501,0.001014849,0.001851654,0.001887263,0.000551935,0.001691415,0.000925827,0.000890218,0.000961436,0.001014849,0.001566784,0.001406545,0.001228501,0.001175088,0.001175088,0.001139479,0.001086066,0.000997044,0.000925827,0.000872414,0.000819001,0.000801196,0.000783392,0.000765588,0.000729979,0.00069437,0.000676566,0.000623153,0.000605348,0.000623153,0.000605348,0.000516327,0.000391696,0.000356087,0.000462914,0.000997044,0.000534131,0.000640957,0.000178044,0.000231457,0.000498522,0.000391696,0.000747783,0.000338283,0.000106826,0,0.000249261,0.000605348\nSRI-1053075-001.txt,O=C(CSc1n[nH]c(=O)[nH]c1=O)Nc1ccc(Oc2ccccc2)cc1,0.99634092,0.980149076,0.965230436,0.950394832,0.93602976,0.922107542,0.908849604,0.896920228,0.886706911,0.878320366,0.87148381,0.865865101,0.862128522,0.859969609,0.859083901,0.859997288,0.863041908,0.86774723,0.873947184,0.881835519,0.891107771,0.901210375,0.912171008,0.923546817,0.935282444,0.947405568,0.958642985,0.969686653,0.97940176,0.987918393,0.994251203,0.998616082,1,0.999698306,0.996335384,0.991007299,0.982570933,0.972102975,0.958648521,0.942860781,0.925088502,0.905544807,0.88503237,0.862850927,0.838776284,0.81360281,0.78801416,0.761592392,0.735787851,0.709872596,0.683949039,0.657665662,0.630521488,0.602865264,0.576000642,0.550838239,0.528186264,0.508556767,0.491196896,0.475528172,0.460651051,0.446280443,0.433324199,0.421771249,0.412454711,0.404505484,0.397873748,0.392631465,0.388584888,0.385075271,0.381690207,0.379022013,0.376542031,0.373962407,0.371521175,0.369702707,0.367662811,0.365982734,0.364407835,0.362672402,0.360701702,0.358775288,0.356145843,0.353854074,0.350931239,0.347994564,0.344999765,0.342032644,0.338165976,0.334346362,0.330058983,0.324927413,0.319530132,0.313352321,0.306590496,0.299288943,0.29141168,0.283052813,0.273899577,0.264508308,0.254604988,0.244377832,0.233879428,0.223264774,0.212367801,0.20117467,0.189679844,0.178143501,0.166651444,0.15492412,0.143661793,0.132288752,0.121209102,0.11036195,0.100082205,0.090322813,0.08105056,0.072398303,0.064199971,0.056555206,0.049726953,0.043322179,0.037642578,0.03245842,0.027800151,0.023792324,0.020515205,0.017359871,0.014935246,0.012399908,0.010562065,0.00904529,0.00768905,0.00653763,0.005593798,0.004763447,0.004113005,0.003537295,0.002992031,0.002535338,0.00226409,0.001959628,0.001774183,0.001776951,0.001516774,0.001359008,0.001273205,0.001217848,0.001148652,0.001057314,0.000954904,0.000866333,0.000822047,0.000786066,0.000763923,0.000747316,0.000727941,0.000705798,0.00067812,0.000644906,0.000617228,0.000584014,0.000539728,0.000514818,0.000514818,0.000528657,0.000487139,0.000334908,0.000351515,0.000274016,0.000296159,0.000329373,0.000373658,0.000254641,9.69E-05,0.000276784,0.000318301,6.92E-05,0,0.000107946,0.000124553\nSRI-1053294-001.txt,CC(C)[C@H](NC(=O)Cn1nnc2ccccc2c1=O)C(O)=O,0.976729945,0.98322639,0.989935834,0.996006283,1,0.999627253,0.994568545,0.98327964,0.965813786,0.94270348,0.916770947,0.887643441,0.85436247,0.814638302,0.766766953,0.710428925,0.647913949,0.583801486,0.522138502,0.465693975,0.417130382,0.377033467,0.344764238,0.319097953,0.299012221,0.282962805,0.269581192,0.25785564,0.246801033,0.23638542,0.226337229,0.216832184,0.208269656,0.201038366,0.194568545,0.188380947,0.182214649,0.175968476,0.169674379,0.163215208,0.157821028,0.15349184,0.15098911,0.150382066,0.151734604,0.154913603,0.159679438,0.166053409,0.173045076,0.181405256,0.190260657,0.199302431,0.208610453,0.218056924,0.227535344,0.237109614,0.246391011,0.255730983,0.264660933,0.273399185,0.281328044,0.288612583,0.294730957,0.299821614,0.303724806,0.306334034,0.308075295,0.308586491,0.308160494,0.306754706,0.304358476,0.301349876,0.29732421,0.292691499,0.287899039,0.283564525,0.279091563,0.274906148,0.271418302,0.268473602,0.265869698,0.262664075,0.258920632,0.25378205,0.246944807,0.2387923,0.229452328,0.219766234,0.209696744,0.200585745,0.192443888,0.186293565,0.181825927,0.179190074,0.177683112,0.174935435,0.170526372,0.162485689,0.15103171,0.13667563,0.120530366,0.103969754,0.087643441,0.072627067,0.059932373,0.049122714,0.039750792,0.032322479,0.026023057,0.021416971,0.017689502,0.01437738,0.011480604,0.009925717,0.008184456,0.006869192,0.005601853,0.004675311,0.003951117,0.003290822,0.0030086,0.002635853,0.002140632,0.001831785,0.001996858,0.001602812,0.001469688,0.001304614,0.00116084,0.001080966,0.001059666,0.000958492,0.000990442,0.000825368,0.000740169,0.000798743,0.000926542,0.000447296,0.000436646,0.000468596,0.000516521,0.00064432,0.000255598,0.000378072,0.000457946,0.000468596,0.000399372,0.000287548,0.000154424,6.39E-05,2.66E-05,1.06E-05,0,5.32E-06,2.13E-05,5.32E-05,0.000111824,0.000170399,0.000212998,0.000250273,0.000282223,0.000319497,0.000335472,0.000324822,0.000330147,0.000362097,0.000436646,0.000388722,0.000186373,0.000101174,0.000207673,0.000202348,6.92E-05,0.000250273,0.000489896,0.000133124,0.000378072,0.000122474,4.79E-05,2.13E-05,9.58E-05\nSRI-1052852-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)Cn1ccc2c(Br)cccc12,0.975352716,0.988365257,0.999387645,1,0.994335717,0.981782443,0.960043845,0.93310023,0.899114535,0.857015137,0.808593176,0.755012125,0.698109048,0.637853329,0.576051413,0.513928012,0.453810072,0.397366262,0.346219321,0.300950987,0.26251041,0.230514868,0.203785578,0.181955127,0.164503013,0.150480086,0.139564861,0.131129672,0.124684637,0.120046049,0.116869458,0.115128839,0.114556288,0.114951257,0.116394883,0.118677436,0.121780544,0.125440896,0.129738096,0.134564983,0.139880223,0.145576655,0.151824205,0.158345785,0.165208752,0.172203375,0.179220962,0.186387045,0.193253074,0.199984385,0.206362061,0.212254446,0.217859024,0.222979841,0.227177534,0.230370965,0.232580035,0.234029785,0.235513215,0.236880297,0.237901399,0.23845558,0.238291775,0.236734863,0.233803214,0.228833954,0.222708874,0.216844045,0.212704527,0.210780201,0.209925966,0.207485732,0.201007018,0.189849912,0.175781059,0.160516583,0.145685348,0.131757336,0.119491868,0.108931808,0.100242493,0.092901889,0.086092502,0.078453375,0.069491562,0.059493338,0.049257826,0.039676003,0.031398496,0.024850892,0.019679555,0.015749767,0.013037035,0.010996363,0.009468537,0.008461213,0.007639127,0.007117094,0.006680792,0.006287354,0.006068437,0.005803593,0.005653566,0.005483638,0.005370352,0.005120818,0.005044273,0.004800862,0.004690638,0.004526833,0.004373745,0.004263521,0.004032357,0.003833341,0.003752204,0.003626672,0.003441434,0.003263851,0.003159751,0.003015848,0.00286429,0.002675991,0.002455543,0.002334603,0.002134057,0.001996277,0.0018983,0.001618148,0.001529356,0.001423725,0.001285945,0.00112214,0.001108362,0.00098436,0.000829741,0.00077616,0.000693492,0.000612355,0.000518971,0.000494477,0.000405685,0.000361289,0.00024188,0.000318425,0.000244942,0.00022351,0.000217386,0.000218917,0.000229633,0.000211262,0.000174521,0.000151558,0.000140842,0.000128595,0.000117878,0.000105631,9.49E-05,8.42E-05,7.35E-05,6.74E-05,5.82E-05,5.05E-05,4.29E-05,3.98E-05,4.13E-05,4.29E-05,2.76E-05,7.96E-05,7.81E-05,0.000111755,7.04E-05,6.74E-05,3.37E-05,0.000105631,6.89E-05,4.9E-05,6.89E-05,5.36E-05,3.37E-05,0,6.28E-05\nSRI-1052842-001.txt,CCc1ccc(cc1)S(=O)(=O)[C@H]1CS(=O)(=O)C[C@@H]1NCCc1c[nH]c2ccccc12,0.973553997,0.991583349,1,0.996899129,0.982280735,0.954372893,0.913131304,0.860815175,0.800392482,0.735008395,0.669535711,0.608227055,0.551835494,0.501379888,0.457081726,0.417612063,0.382040639,0.348418334,0.316390763,0.284673279,0.253443075,0.223541815,0.195811166,0.170827002,0.149608183,0.131888918,0.117846401,0.106816158,0.098753893,0.092875527,0.08894185,0.08651874,0.085251813,0.085132208,0.086350407,0.088197641,0.090425838,0.093132456,0.096237757,0.099830338,0.103210288,0.107081947,0.111339001,0.115799825,0.12027394,0.124336081,0.128407082,0.132181286,0.135765007,0.138648817,0.141142804,0.14341973,0.145625778,0.148186212,0.150751075,0.152598309,0.153019141,0.152443265,0.151712345,0.151428837,0.151521863,0.152013573,0.152177476,0.151433267,0.149794235,0.146409855,0.141842715,0.137195838,0.133789309,0.132367338,0.131893348,0.130285324,0.125270773,0.116455438,0.105004363,0.093163465,0.081783267,0.071745303,0.063235626,0.055859982,0.049472187,0.043354611,0.037954665,0.033090727,0.029059594,0.025210084,0.021896582,0.019885445,0.01879571,0.017821151,0.017209836,0.016766854,0.01638589,0.01614225,0.016044794,0.015920759,0.015739137,0.015606242,0.015601813,0.015455629,0.015127822,0.014755718,0.014675981,0.014489929,0.013945061,0.013236291,0.013067958,0.012633836,0.011925065,0.011592829,0.011207435,0.010454366,0.010166428,0.009479807,0.009089983,0.008558405,0.008124283,0.007592705,0.006680163,0.006480821,0.005962533,0.005351218,0.004553851,0.003964686,0.003353371,0.002932538,0.002458548,0.002073154,0.001665611,0.001377673,0.001585874,0.001488418,0.001182761,0.00145298,0.001258068,0.00096127,0.001072016,0.001009998,0.000779648,0.000629034,0.000562587,0.000513859,0.00047842,0.000265789,0.000296798,0.0002525,0.000287938,0.000310087,0.000301228,0.000296798,0.000301228,0.000292368,0.000279078,0.000256929,0.00024364,0.000221491,0.000203772,0.000186052,0.000168333,0.000155044,0.000141754,0.000128465,0.000119605,0.000132894,0.000146184,0.000168333,0.000168333,0.000208201,0.000279078,0.000186052,0.000155044,0.000186052,0.000256929,0.00023035,0.000225921,0.000434122,0.000194912,0.000256929,0.000132894,1.33E-05,0\nSRI-1052983-001.txt,Cn1c(nc2ccccc12)C1=C(N)N(CC1=O)c1ccc(Oc2ccccc2)cc1,0.828663265,0.801630266,0.775771114,0.751120333,0.727470775,0.704235515,0.682277677,0.661010337,0.640778744,0.622066246,0.604216872,0.588508041,0.574387356,0.561371467,0.550599698,0.540656526,0.532336024,0.525396519,0.51942371,0.514244975,0.509411489,0.505924473,0.502886282,0.500365964,0.498915918,0.498708769,0.499502841,0.50181601,0.505499817,0.510975467,0.517193402,0.52503746,0.533865477,0.543138866,0.552836911,0.561899698,0.570599974,0.577694841,0.583229183,0.586916443,0.588328511,0.589416046,0.589277946,0.589692245,0.591497897,0.595337067,0.60110963,0.609143575,0.619128177,0.630877002,0.642857143,0.655141103,0.666624086,0.676308321,0.684756565,0.691796193,0.697434109,0.701383758,0.704418497,0.705713181,0.705305787,0.702875234,0.699419291,0.695017366,0.690615441,0.68656567,0.683530931,0.68190826,0.681345505,0.682926745,0.686503525,0.691482016,0.698842725,0.7076811,0.718846454,0.731037197,0.745772426,0.761443279,0.778346671,0.79665868,0.816372399,0.836155169,0.856390214,0.876777169,0.896515056,0.91555554,0.933681114,0.949738646,0.964339228,0.976567948,0.98666303,0.993837305,0.998432569,1,0.997987198,0.993043232,0.985088694,0.972825449,0.957282338,0.937813745,0.914278119,0.886703079,0.854577657,0.818768428,0.779016455,0.735459837,0.688899553,0.639725734,0.589032819,0.537632144,0.4858586,0.435110445,0.38641307,0.340615786,0.297321558,0.257348626,0.221194147,0.188668236,0.160140309,0.134985465,0.112937862,0.094073455,0.0783301,0.06468931,0.053313355,0.043715432,0.035819587,0.029114851,0.023659916,0.019295968,0.015805501,0.012933029,0.010291874,0.008389551,0.007005103,0.005682799,0.004726459,0.003846074,0.003262603,0.002658418,0.002026612,0.001805652,0.001481118,0.001367186,0.001184204,0.001073724,0.001008127,0.00098396,0.000921815,0.000759548,0.000583471,0.000455729,0.000376321,0.000317629,0.000272747,0.000245127,0.000241674,0.000241674,0.000238222,0.000241674,0.000234769,0.000227864,0.000210602,0.000196792,0.000203697,0.000220959,0.000203697,0.000227864,8.63E-05,0.000155362,0.000224412,6.9E-06,0.000155362,0,0.000120837,0.000145005,0.000200244,6.9E-05,8.98E-05,1.04E-05,0.000120837\nSRI-1052889-001.txt,COc1ccc(cc1)S(=O)(=O)[C@H]1CS(=O)(=O)C[C@@H]1N1CCC2(CC1)OCCO2,0.332558019,0.344239417,0.359280509,0.377009355,0.396857394,0.419444875,0.445133612,0.473303355,0.50333385,0.535793663,0.569959167,0.605830361,0.643665685,0.682017884,0.721042022,0.759911097,0.797849796,0.834496304,0.86948881,0.901224996,0.930325115,0.954411537,0.974207888,0.988628728,0.997260557,1,0.996226805,0.986690443,0.970574249,0.948043624,0.919915232,0.886080529,0.848209025,0.806181837,0.762562671,0.71763064,0.672264434,0.627430609,0.583454799,0.542461364,0.503597457,0.467772781,0.435085543,0.404507159,0.375882566,0.349005014,0.323853827,0.300397995,0.279567892,0.260298754,0.242693958,0.226205613,0.209784463,0.193172068,0.176502817,0.160004135,0.144084354,0.129565307,0.116736445,0.105726986,0.096283662,0.08782757,0.07936631,0.070817181,0.062035458,0.05331576,0.045107769,0.037447666,0.031322686,0.026582933,0.022458262,0.018834961,0.016235075,0.01425544,0.011960511,0.009893007,0.008311366,0.00692097,0.006093968,0.005060216,0.004202202,0.003483744,0.002822143,0.002408642,0.002108854,0.002077842,0.00171086,0.001493772,0.001473097,0.001380059,0.001452422,0.001447253,0.001380059,0.001188815,0.001183646,0.001230165,0.001312865,0.001224996,0.001245671,0.001426578,0.001411071,0.001328371,0.001271515,0.001038921,0.001178477,0.001152633,0.001193984,0.001054427,0.001307696,0.00125084,0.001080271,0.001307696,0.001090608,0.001230165,0.001302528,0.001038921,0.001111283,0.001100946,0.000827002,0.000702951,0.000723626,0.000945883,0.000589239,0.000604745,0.000392826,0.000387657,0.00046002,0.000392826,0.000558226,0.000485863,0.000403163,0.000568564,0.000444513,0.000403163,0.000491032,0.000429007,0.000439345,0.000465188,0.000408332,0.000263607,0.00054272,0.000382488,0.000537551,0.000382488,0.000346307,0.00046002,0.000475526,0.000475526,0.000449682,0.00041867,0.000397995,0.000361813,0.000330801,0.000310126,0.000284282,0.000263607,0.000242932,0.000227425,0.000211919,0.000201582,0.000196413,0.000191244,0.000201582,0.000232594,0.000227425,0.000217088,0.000253269,0.000170569,0.000211919,0.000361813,0.000366982,0.000403163,0.000175738,0.000304957,0.000454851,0.000485863,0.000299788,0.000170569,0.000465188,0.000335969,0\nSRI-1052899-001.txt,OC(=O)C(Cc1c[nH]c2ccccc12)NS(=O)(=O)c1ccc(cc1)C1CCCCC1,0.988317757,0.976635514,1,0.976635514,0.941588785,0.918224299,0.859813084,0.801401869,0.731308411,0.661214953,0.579439252,0.521028037,0.474299065,0.414719626,0.369158879,0.327102804,0.304906542,0.28271028,0.271028037,0.253504673,0.234813084,0.219626168,0.207943925,0.198598131,0.186915888,0.175233645,0.167056075,0.161214953,0.153037383,0.147196262,0.143691589,0.14135514,0.143691589,0.13796729,0.138434579,0.139252336,0.136331776,0.136915888,0.138084112,0.14088785,0.145327103,0.150584112,0.155140187,0.16588785,0.172780374,0.184345794,0.193457944,0.204672897,0.211214953,0.221495327,0.230490654,0.24228972,0.252920561,0.263434579,0.278037383,0.278271028,0.291471963,0.301051402,0.30911215,0.314953271,0.325233645,0.335981308,0.34182243,0.346378505,0.355490654,0.357593458,0.355257009,0.357827103,0.35864486,0.367757009,0.380490654,0.395560748,0.403154206,0.408878505,0.428154206,0.439719626,0.442757009,0.451635514,0.457943925,0.464602804,0.476518692,0.483294393,0.495327103,0.497663551,0.504672897,0.506425234,0.50864486,0.514018692,0.50864486,0.508294393,0.508761682,0.510397196,0.499415888,0.493341121,0.494392523,0.481191589,0.471728972,0.463434579,0.450584112,0.439836449,0.428971963,0.409929907,0.398364486,0.377219626,0.357593458,0.342990654,0.325,0.309345794,0.297079439,0.285864486,0.264252336,0.243341121,0.225116822,0.203971963,0.192056075,0.180841121,0.162149533,0.139485981,0.122897196,0.104672897,0.087733645,0.072313084,0.064719626,0.05,0.038551402,0.033060748,0.023831776,0.015186916,0.009462617,0.006425234,0.009579439,0.008528037,0.011682243,0.005607477,0.010864486,0.005607477,0,0.001985981,0.00478972,0.003621495,0.002570093,0.002570093,0.002803738,0.007943925,0.00432243,0.003621495,0.003738318,0.003154206,0.003037383,0.003738318,0.00432243,0.004672897,0.005140187,0.005257009,0.005257009,0.004906542,0.004672897,0.00432243,0.004088785,0.003738318,0.003271028,0.002920561,0.002570093,0.001752336,0.001635514,0.003154206,0.004672897,0.004556075,0.006074766,0.003504673,0.00432243,0.005373832,0.006074766,0.005140187,0.005140187,0.00771028,0.005373832,0.006191589,0.003037383,0.002219626,0.006191589\nSRI-1053337-001.txt,CCCC(NS(=O)(=O)c1ccc(OC)cc1)C(O)=O,0.214372654,0.235889366,0.261021904,0.289413778,0.321039525,0.356255634,0.394552834,0.436236689,0.480186801,0.527090686,0.575980729,0.625532825,0.675415947,0.724840725,0.77317057,0.819055913,0.861962019,0.901023126,0.93455864,0.96249217,0.98306673,0.995900366,1,0.994296162,0.979170804,0.954012803,0.919968018,0.876463518,0.824650258,0.765131723,0.699860969,0.63096675,0.561634557,0.49449987,0.432730356,0.376837833,0.327845935,0.286538941,0.251844835,0.223595557,0.200932985,0.183042285,0.168571341,0.156809721,0.146479153,0.136945595,0.128188675,0.120618357,0.114619141,0.109842177,0.105872407,0.10157925,0.096585845,0.0901181,0.082451021,0.073943644,0.065838592,0.058853936,0.053934375,0.051339638,0.049424778,0.046817309,0.042226228,0.035414725,0.028053209,0.021195871,0.015522589,0.01137712,0.008601592,0.00645756,0.005329524,0.004232044,0.003582723,0.003157482,0.00276025,0.002469966,0.002123661,0.001746801,0.001553277,0.001240076,0.001087294,0.000993079,0.000949791,0.001044006,0.001000718,0.000962523,0.000952337,0.000939606,0.000939606,0.000863215,0.000914142,0.000886132,0.000858122,0.00078937,0.000771546,0.000853029,0.000970162,0.000855576,0.000761361,0.000763907,0.000758814,0.000830112,0.000812288,0.000804649,0.000679877,0.000651867,0.000728258,0.000672238,0.000636589,0.000519457,0.0004889,0.0004889,0.000445612,0.000460891,0.000435427,0.000392139,0.0003845,0.000323387,0.000282646,0.000175699,0.000229172,0.000208801,0.000264821,0.000117132,0.000145142,0.000224079,0.000231718,0.000297924,0.00027246,0.000183338,0.00021644,0.00021644,0.00021644,0.000157874,0.000264821,0.000165513,0.000152781,5.86E-05,8.66E-05,0.000117132,4.07E-05,0.000180791,0.00014005,0.000162967,8.15E-05,9.42E-05,0.00011204,0.000119679,0.000119679,0.000109493,9.42E-05,8.91E-05,8.4E-05,7.64E-05,6.37E-05,5.35E-05,4.33E-05,3.56E-05,3.06E-05,2.8E-05,2.29E-05,1.27E-05,5.09E-06,0,5.09E-06,2.8E-05,6.88E-05,0.000104401,9.17E-05,0.000175699,7.13E-05,5.09E-05,7.38E-05,8.15E-05,0.000114586,7.64E-06,3.82E-05,0.000101854,7.13E-05,4.58E-05,5.86E-05\nSRI-031202.txt,COC(=O)\\C=C(\\O\\N=C(/N)C1=NC=C(C)C=C1)C(=O)OC,1.000000001,0.987254587,0.967565787,0.944214013,0.921351836,0.897020246,0.872164775,0.851728054,0.837520133,0.823712447,0.81081872,0.800514774,0.791717596,0.78269495,0.774096027,0.764183534,0.752662989,0.739777025,0.725472438,0.709965399,0.69322055,0.674670738,0.65476924,0.634882024,0.615960069,0.598627863,0.584089811,0.572821541,0.564261779,0.557919116,0.554222764,0.552393816,0.552417134,0.554373725,0.557123863,0.560363483,0.564748535,0.570226013,0.576487384,0.583980341,0.592955141,0.602728976,0.613581755,0.625577102,0.637787827,0.651124849,0.66564649,0.680965991,0.696832923,0.713060188,0.729260149,0.745706023,0.761927841,0.777995533,0.794825751,0.810751766,0.824023485,0.834465316,0.84359312,0.853422899,0.864132778,0.871626522,0.875788374,0.879101074,0.881814284,0.883895363,0.884372435,0.884159254,0.883318055,0.879729881,0.875322429,0.869440787,0.861642835,0.851391142,0.837260181,0.820810038,0.802164444,0.781647213,0.759668671,0.735726233,0.710095601,0.682814791,0.65468014,0.626388043,0.597593149,0.569235451,0.541151915,0.513497149,0.486545112,0.459608562,0.433167445,0.407719735,0.383025254,0.35887998,0.335952105,0.313975152,0.292905444,0.27294493,0.254174368,0.236471769,0.219805187,0.204235017,0.189696408,0.176123282,0.163824389,0.153006899,0.142710336,0.132471873,0.122987883,0.114366454,0.106767161,0.099433817,0.09219053,0.085893922,0.080062794,0.074585539,0.069532875,0.064873144,0.060518696,0.05649808,0.052705423,0.049168855,0.04592077,0.042788182,0.039764692,0.036993443,0.034471531,0.032093202,0.029843177,0.02759035,0.025489,0.023667434,0.022005666,0.020349707,0.018822554,0.017372575,0.015989565,0.014768589,0.013583825,0.012467543,0.011441504,0.010511326,0.009696072,0.008948482,0.008257824,0.007565767,0.007071867,0.007041441,0.006686283,0.00606492,0.005374916,0.004749976,0.004429677,0.003855455,0.003409397,0.003429969,0.003424859,0.002897183,0.003046166,0.003600874,0.003386244,0.002458388,0.002521969,0.00250168,0.002120675,0.001735527,0.001360986,0.001990924,0.003327998,0.002977669,0.000607814,3.13E-10,0.001485616,0.002598545,0.002394724,0.001622231,0.000398875,0.000348829,0.002142664,0.003391399,0.001791131\nSRI-1052755-001.txt,O=S(=O)(NCC(c1cccnc1)S(=O)(=O)c1ccccc1)c1ccc(OC2CCCC2)cc1,0.805440591,0.809308571,0.812071414,0.810413708,0.806545728,0.799362336,0.788863532,0.776707023,0.762892807,0.74963116,0.738579788,0.730843828,0.728854581,0.733496157,0.742447768,0.758306488,0.778806783,0.803175059,0.830306178,0.859371287,0.888878451,0.917114708,0.943085433,0.965298691,0.983146657,0.994805855,1,0.997900239,0.988230288,0.97165323,0.946737911,0.913766142,0.874351423,0.829079476,0.780702094,0.731330088,0.682599062,0.636105938,0.59295033,0.554027396,0.520862228,0.493289054,0.469384936,0.447812657,0.426931089,0.406231869,0.38514585,0.364430053,0.34391318,0.322843739,0.301901389,0.280434098,0.25895023,0.236891691,0.213589873,0.188630348,0.161897079,0.135832417,0.113011333,0.094815249,0.081559128,0.072408591,0.065965641,0.060174722,0.053433385,0.046316301,0.038895305,0.032441303,0.027468186,0.023506269,0.02069922,0.018814961,0.017400386,0.016400236,0.015272997,0.014068397,0.013637393,0.013040619,0.012593039,0.011907854,0.01171998,0.011371862,0.011244771,0.011073475,0.010857973,0.010377239,0.010316456,0.010228045,0.00974731,0.009603643,0.009343935,0.009073177,0.00897924,0.008702956,0.008404569,0.008271952,0.00837694,0.008763738,0.008603493,0.008316158,0.008824521,0.008714007,0.00865875,0.008957137,0.008791367,0.00869743,0.008835572,0.008973714,0.008603493,0.008874252,0.008399043,0.008194593,0.007852,0.007879628,0.007636498,0.00781332,0.007382317,0.006918159,0.006807645,0.006426373,0.006514784,0.006111409,0.005940113,0.005929061,0.006017472,0.005978792,0.00591801,0.00580197,0.005940113,0.005818548,0.005818548,0.005619623,0.005498058,0.005022849,0.005254928,0.005116785,0.004917861,0.004724462,0.004796296,0.004647102,0.004326612,0.004094533,0.003939814,0.003912186,0.00394534,0.00370221,0.003497759,0.003331989,0.003110961,0.002834677,0.002563918,0.002320788,0.002160543,0.002061081,0.001994773,0.001928464,0.001845579,0.001746117,0.001641129,0.001525089,0.001386947,0.001237754,0.001060932,0.000862007,0.000663082,0.00052494,0.000464158,0.000276284,0.000331541,0.000209976,0.000121565,0.000442055,0.000419952,0.000303913,0.000176822,0.000254182,0,0.000143668,3.87E-05,0.000303913,0.000348118\nSRI-1053051-001.txt,COc1ccc(cc1)C1(CN2C(=O)N[C@@H](CCC(O)=O)C2=O)CCOCC1,0.953339935,0.971220357,0.985752652,0.9965094,1,0.996224453,0.982119578,0.957257955,0.922067005,0.875121993,0.815140657,0.746041018,0.666113395,0.580130648,0.492366983,0.406170527,0.327168981,0.258496762,0.201436133,0.155345961,0.119585117,0.092800103,0.073138762,0.05874894,0.048134666,0.040654808,0.03546165,0.031928307,0.029342414,0.028031658,0.027483135,0.027518753,0.027775205,0.02877252,0.030368223,0.031978173,0.033808957,0.036786653,0.039878328,0.042777663,0.046802539,0.050464107,0.054602962,0.059090877,0.063991964,0.069206494,0.074299921,0.079884881,0.08529175,0.090085983,0.094659382,0.099275522,0.104133868,0.108714391,0.112860369,0.115738333,0.116700029,0.115175563,0.11156386,0.106904977,0.103229161,0.100750123,0.09888372,0.095065431,0.08773517,0.076230437,0.061562792,0.04690227,0.034015544,0.02347963,0.016370203,0.011141426,0.007928649,0.00558496,0.003967886,0.003098798,0.002436297,0.002072989,0.001624198,0.001645569,0.001481724,0.000990191,0.001025809,0.000961696,0.000847717,0.000512905,0.000591265,0.000512905,0.000242205,0.000406049,0.000605512,0.000463039,0.000391802,0.000434544,0.000434544,0.000406049,0.000370431,0.000398926,0.0002707,0.000470162,0.000463039,0.000235081,0.000170968,0.000612636,0.000655378,0.000391802,0.000377555,0.000121102,0.000491534,0.000377555,0.000227958,0.000527152,9.26E-05,8.55E-05,0.000128226,3.56E-05,0.000455915,0.000363307,0.000113979,0.000235081,0.000263576,0.000235081,0.000249329,0.000520028,0.000719491,0.000341936,0.000398926,0.000306318,0.000284947,0.000470162,0.000256452,0,0.000235081,7.84E-05,9.26E-05,0.000341936,0.000192339,0.00042742,9.97E-05,0.000142473,0.00042742,0.000384678,0.000406049,0.00042742,8.55E-05,4.99E-05,0.000156721,0.000192339,0.000178092,0.000206587,0.000220834,0.000227958,0.000220834,0.000192339,0.000156721,0.000128226,9.97E-05,9.97E-05,0.000121102,0.000142473,0.000156721,0.000178092,0.000199463,0.00021371,0.000206587,0.000149597,7.84E-05,0.000320565,0.000185216,8.55E-05,7.12E-05,0.000413173,0.000577018,0.000356184,0.000498657,0.000299194,0.000192339,0.000113979,0.000327689,0.000242205,0.000170968\nSRI-1053129-001.txt,O=C(Nc1ccc(cc1)S(=O)(=O)NC1CCCCC1)C1CCCO1,0.157772109,0.143690172,0.135689071,0.131848542,0.132168586,0.135369027,0.140489731,0.1475307,0.156139885,0.166893365,0.1795031,0.194993231,0.212467636,0.232086335,0.252985211,0.275644329,0.300191706,0.326467322,0.354407166,0.384139258,0.415023507,0.447347955,0.481048592,0.515965397,0.551682311,0.588039314,0.624844379,0.661713452,0.698774551,0.735259572,0.770877273,0.804875551,0.837248005,0.867761004,0.895780859,0.921173153,0.94353463,0.962478037,0.977782543,0.988670441,0.996450712,1,0.999247897,0.99389676,0.982455186,0.964772753,0.940321388,0.911360603,0.87819444,0.842480725,0.805317212,0.766895925,0.72754331,0.688683563,0.650585521,0.613770855,0.577596277,0.540151125,0.499806373,0.456046752,0.408747444,0.360779243,0.312343779,0.265591745,0.222513818,0.18291797,0.147610711,0.116582442,0.090063593,0.068396611,0.05094141,0.037896415,0.028147873,0.021065299,0.016107816,0.01228009,0.009422096,0.007684257,0.006128843,0.005296729,0.004787859,0.004080561,0.003542888,0.003318857,0.003040418,0.002723575,0.002659566,0.002585956,0.002310718,0.002016277,0.002057883,0.00196187,0.001699434,0.001705835,0.001590619,0.001507407,0.001517009,0.001251372,0.001168161,0.001078548,0.000921727,0.000675293,0.000595282,0.000668892,0.000502469,0.000352048,0.000419258,0.00050567,0.00057928,0.000588881,0.000611284,0.000384053,0.000316844,0.000403255,0.000492868,0.000534474,0.000457663,0.000297641,0.000496068,0.000409656,0.000172824,0.000451262,0.000294441,0.000374452,0.00043526,0.000384053,0.000425659,0.000444861,0.000348848,0.00036165,0.00021763,0.000374452,0.000342447,0.000236833,0.000265637,0.000224031,0.000236833,0.000121617,0.000208029,0.000198427,0.000166423,0.000233632,0.000169623,0.000294441,0.000252835,0.000153621,0.000163222,0.000176024,0.000179225,0.000172824,0.000172824,0.000172824,0.000163222,0.000150421,0.000131218,0.000118416,0.000115216,0.000112015,0.000108815,0.000105615,0.000105615,0.000112015,0.000118416,0.000108815,8.64E-05,4.8E-05,7.04E-05,0.00021763,0.000121617,8.96E-05,0.000115216,0.000262436,0.000163222,0.000182425,0.000134418,0.00014722,3.2E-05,9.28E-05,5.12E-05,0,0.000134418\nSRI-1053041-001.txt,O=C(CNC(=O)C1COc2ccccc2O1)NCCc1c[nH]c2ccccc12,0.994682132,1,0.996345333,0.981529708,0.953605427,0.910953058,0.850749535,0.775270817,0.687996499,0.59343473,0.500186016,0.414881278,0.338964876,0.274712769,0.222540759,0.181092023,0.148944086,0.12445563,0.10605099,0.092351461,0.082153408,0.07455958,0.069044753,0.065061823,0.062370062,0.06059744,0.059656418,0.059437575,0.059743954,0.06065215,0.062249699,0.064379035,0.066917606,0.069972645,0.0736295,0.077660576,0.082135901,0.087171463,0.092646898,0.098566583,0.104674472,0.111150016,0.118017289,0.125195317,0.132570303,0.140275741,0.148029325,0.155912025,0.163729073,0.171403874,0.178765729,0.185797133,0.192620637,0.198960499,0.204470949,0.208900317,0.212185141,0.214058431,0.215115439,0.215870445,0.216491958,0.217010614,0.216802714,0.214997264,0.210246198,0.201321808,0.188858737,0.175148266,0.163109749,0.154296969,0.148499836,0.143256374,0.135618777,0.124545355,0.110734216,0.096089288,0.082219061,0.069863224,0.059358792,0.050329358,0.042604224,0.035791662,0.030222125,0.025140606,0.0208885,0.017341066,0.014373564,0.011970675,0.00993763,0.008283182,0.006946055,0.005930627,0.00512091,0.004519094,0.003989496,0.003624029,0.00337236,0.002897472,0.002750848,0.002361309,0.002144655,0.001895175,0.001553781,0.001477186,0.001295547,0.001251778,0.001164241,0.001037313,0.001048255,0.001122661,0.001057008,0.000986979,0.001037313,0.000997921,0.000956341,0.000932268,0.000919138,0.000949776,0.000765948,0.00081847,0.000816282,0.000816282,0.000706861,0.000641208,0.000728745,0.000619324,0.000748441,0.000772513,0.000755006,0.000619324,0.000551483,0.000529598,0.000593063,0.000601816,0.000435496,0.0004158,0.000433308,0.000256046,0.000218842,0.000269176,0.000369844,0.000247292,0.00016632,0.000218842,0.000227596,0.000183828,0.000172885,0.000179451,0.000177262,0.00016632,0.000142248,0.000120363,0.000100667,8.53E-05,7.44E-05,6.57E-05,6.13E-05,5.69E-05,5.25E-05,5.47E-05,6.13E-05,6.57E-05,7.66E-05,8.53E-05,8.1E-05,5.03E-05,5.03E-05,0.000170697,5.69E-05,0,0.000100667,0.000177262,0.000129117,0.000100667,0.000161943,0.00011161,8.97E-05,0.000115986,7.88E-05,5.69E-05,1.09E-05\nSRI-1053139-001.txt,FC(F)(F)C(=O)Nc1ccc(cc1)S(=O)(=O)NC1CCCCC1,0.208956805,0.195714929,0.189093991,0.185783522,0.186445616,0.190418178,0.196377023,0.204322148,0.215577743,0.228157525,0.242723589,0.259275934,0.27682142,0.296882862,0.318202283,0.341375566,0.366667549,0.393217511,0.421290288,0.450356206,0.481408406,0.513519956,0.546426018,0.579861755,0.614092005,0.648388464,0.683347017,0.71823936,0.752270982,0.785772928,0.817884478,0.84860563,0.876996213,0.903479965,0.926408274,0.946886835,0.964174104,0.978303186,0.989300564,0.996775603,0.999920549,1,0.995570592,0.987685055,0.974840435,0.958950184,0.938888742,0.91480839,0.887483779,0.855200085,0.820897005,0.783978654,0.746980852,0.709930083,0.67426309,0.639039699,0.60290924,0.566023994,0.527516619,0.4884266,0.449846394,0.413351784,0.377631823,0.343077147,0.309442782,0.275967319,0.242531582,0.209155433,0.176765804,0.146051273,0.118256575,0.094136497,0.074214095,0.05801928,0.045446119,0.035799412,0.02801981,0.021623984,0.017141609,0.013672237,0.011090071,0.008838952,0.007177097,0.005740353,0.004641278,0.003720967,0.003416404,0.002714585,0.002582166,0.001999523,0.001807516,0.001774411,0.001317567,0.001006383,0.000701819,0.000834238,0.001032866,0.000734924,0.000979899,0.000748166,0.000761408,0.000397256,0.000569401,0.000960036,0.000675336,0.000456845,0.000662094,0.000185386,0.000470087,0.000523054,0.000516433,0.000311184,0.000615747,0.000536296,0.000820996,0.000278079,0.000595884,0.000443603,0.000516433,9.27E-05,0.000258217,0.000695198,0.000225112,0.000225112,0.000317805,0.000364152,0.000417119,0.000278079,0.000364152,0.000370773,0.000377393,0.000443603,0.000344289,0.000311184,0.000344289,0.000509812,0.00049657,0.000430361,0.000231733,0.000384014,0.000384014,0.000397256,0.000364152,0.000251596,0.000165523,0.000185386,0.00021187,0.000198628,0.000198628,0.000178765,0.000152282,0.000132419,0.000145661,0.00013904,0.000119177,9.93E-05,0.000105935,0.000105935,0.000105935,0.000112556,0.000112556,9.93E-05,7.95E-05,6.62E-05,0.000105935,0.000192007,0.000304563,0.000337668,0.000158903,0.000271458,0.000331047,0.000244975,0.000158903,0.000331047,0,0.000112556,0.000417119,0.000377393,3.97E-05,0.000145661,0.000377393\nSRI-1053190-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)OCc1ccccc1,1,0.996588747,0.986181536,0.964904572,0.932526582,0.887197396,0.82955301,0.762744497,0.691830918,0.620541522,0.554889366,0.49831461,0.452233792,0.416733639,0.390860156,0.374092983,0.364610857,0.360534699,0.360997242,0.365391398,0.372069358,0.38085767,0.391062518,0.402308088,0.414334199,0.426620489,0.439282596,0.451539978,0.463681724,0.474878149,0.485487722,0.494761704,0.50288511,0.50946478,0.514457351,0.518342709,0.520103263,0.520265153,0.518721416,0.5152668,0.509924432,0.503353435,0.494877339,0.485143706,0.474724932,0.464375538,0.453985673,0.443760588,0.432546818,0.421038177,0.409084339,0.398038241,0.387529848,0.377504235,0.367296496,0.35596709,0.342842441,0.328506507,0.314335355,0.301005452,0.288840579,0.2776297,0.266759946,0.255118324,0.242002347,0.226423331,0.209127124,0.192570986,0.179616899,0.171007823,0.164988986,0.158337043,0.147747706,0.132602323,0.115222281,0.097628312,0.081979914,0.068360922,0.056756882,0.047173575,0.039084859,0.032062883,0.026301335,0.021340564,0.017249952,0.013939881,0.011257133,0.008987783,0.007247466,0.005856947,0.004663009,0.003894031,0.003125054,0.002567112,0.002182623,0.001855953,0.001575536,0.001402083,0.00129512,0.001046503,0.000951103,0.000951103,0.000774759,0.000823904,0.000740068,0.00058396,0.000474106,0.000508797,0.000523251,0.000531924,0.000604196,0.000624433,0.00042207,0.000497233,0.000474106,0.000523251,0.000427852,0.000436525,0.000427852,0.000317998,0.000372925,0.000312216,0.000263071,0.00038738,0.000211035,0.000346907,0.000367143,0.000344016,0.000245726,0.000401834,0.000393161,0.000300653,0.000349798,0.00032378,0.000309325,0.000471215,0.000439416,0.000335343,0.000283307,0.000378707,0.000277526,0.000202362,0.000242835,0.000153217,0.000196581,0.000216817,0.000211035,0.000190799,0.000179235,0.000182126,0.00016189,0.000141654,0.000118527,0.000101181,8.09E-05,6.94E-05,6.94E-05,6.94E-05,7.23E-05,8.38E-05,9.54E-05,0.000106963,0.000115636,0.000141654,0.000179235,0.00022838,0.000231271,0.000205253,7.81E-05,3.76E-05,9.25E-05,0.000135872,0.00019369,8.38E-05,0,3.76E-05,0.000109854,6.94E-05,2.6E-05,0.000176344,9.54E-05\nSRI-0000507.txt,CCCCCCCN(CCCCCCC)CC(O)C1=C2C=CC(Br)=CC2=C2C=C(Br)C=CC2=C1,0.409059957,0.417150408,0.423892451,0.428611881,0.433331311,0.439399149,0.4474896,0.458276869,0.47108675,0.485919244,0.505471168,0.528394113,0.557384896,0.589072497,0.618063281,0.639637817,0.648402473,0.644896611,0.632963195,0.619276848,0.609298625,0.604039832,0.606332127,0.614692259,0.629524753,0.652245437,0.683798197,0.724048192,0.769287299,0.811290225,0.845472381,0.866844657,0.878238709,0.883564923,0.893812827,0.914200765,0.945126514,0.977805195,1,0.996231198,0.959311772,0.889747376,0.797752203,0.702332073,0.615036104,0.543017603,0.484854001,0.437484409,0.397315319,0.362155566,0.332059087,0.308246192,0.29140457,0.282107293,0.278507042,0.27879695,0.280266715,0.282464621,0.286064872,0.291060726,0.294829527,0.295193598,0.291323665,0.285424378,0.278250844,0.268110812,0.253824424,0.236638957,0.219096162,0.20367711,0.194271961,0.19268758,0.198748677,0.210392185,0.223599846,0.233079158,0.23526358,0.229566554,0.218105081,0.205268232,0.194811324,0.189592983,0.19136614,0.200299347,0.215206003,0.233726394,0.251437741,0.263047538,0.263964456,0.251383804,0.227206839,0.19509449,0.160312291,0.126649272,0.097314644,0.073312972,0.054307154,0.040297189,0.030345934,0.023543213,0.018560844,0.015735928,0.013915576,0.012964948,0.012337938,0.011791833,0.011245727,0.010585007,0.010018675,0.009823156,0.009196146,0.008791624,0.008724203,0.008461264,0.008636557,0.008407327,0.00884556,0.009263567,0.009492796,0.010214195,0.011110886,0.011764865,0.011839027,0.011495183,0.010611975,0.009674831,0.009277051,0.008852302,0.008852302,0.008596104,0.008535426,0.008400585,0.008157872,0.00825226,0.008987143,0.009620895,0.010558039,0.011286179,0.011562603,0.011663734,0.010935593,0.009870351,0.008663525,0.007355569,0.006499329,0.005818383,0.005407118,0.005218341,0.005043048,0.004699204,0.004267713,0.003876675,0.003613735,0.003451926,0.003350795,0.003263149,0.003195728,0.003108082,0.003020435,0.002926047,0.002811432,0.002683333,0.00254175,0.002352973,0.002117001,0.001793383,0.001638316,0.001779899,0.001624832,0.00132144,0.001449539,0.001341666,0.000916918,0.000444975,0.000633752,0.000761851,0.000903434,0.000357328,0,0.000269682,1.35E-05\nSRI-0000275.txt,OC1=CC=CC=C1CC1=NC2=CC=CC=C2O1,0.981803767,0.974655246,0.97270565,0.974655246,0.978554439,0.985053094,0.990901883,0.994801076,0.998700269,1,0.999415121,0.998440323,0.994151211,0.98700269,0.973615462,0.955484215,0.931764125,0.902975084,0.868922133,0.831944787,0.792627926,0.752661199,0.710939835,0.66661901,0.619308803,0.568034417,0.513510703,0.457362326,0.403293518,0.354163688,0.312377338,0.278506349,0.253207086,0.235816686,0.22555531,0.22188357,0.223794175,0.229636465,0.238071719,0.248079648,0.261024968,0.277882478,0.29947101,0.323119614,0.345838911,0.365367369,0.381471035,0.397724171,0.41768154,0.445307321,0.479145817,0.512542404,0.533507064,0.528776043,0.500805833,0.469540805,0.459077971,0.48159581,0.522556831,0.543060087,0.511756066,0.440810252,0.361084755,0.291750608,0.236745994,0.191066949,0.152153004,0.118730423,0.090272814,0.0676315,0.04966272,0.035872574,0.026365042,0.019554452,0.015102874,0.011756066,0.009104615,0.007479952,0.005952768,0.004951975,0.004029166,0.003593756,0.002846411,0.002690443,0.002300524,0.001943098,0.001800127,0.002092567,0.001637661,0.001468696,0.001384213,0.00125424,0.001169758,0.001345222,0.001163259,0.000883817,0.000786337,0.000792836,0.000805833,0.00067586,0.000799335,0.000565383,0.000734348,0.000812332,0.000760343,0.000792836,0.000649865,0.000740847,0.000799335,0.000714852,0.000844825,0.00067586,0.00091631,0.000701855,0.000747345,0.000747345,0.000610874,0.000747345,0.000786337,0.000721351,0.000487399,0.000656364,0.000701855,0.000597876,0.000370423,0.000591378,0.000461404,0.000649865,0.000539388,0.000448407,0.000441909,0.000519892,0.000766841,0.000454906,0.000415914,0.000506895,0.000454906,0.000357426,0.000363925,0.000649865,0.000448407,0.000441909,0.000311935,0.000545887,0.000376922,0.00043541,0.000402917,0.000357426,0.000285941,0.000292439,0.000285941,0.000272944,0.000259946,0.000266445,0.000279442,0.000285941,0.000292439,0.000305437,0.000311935,0.000331431,0.00033793,0.000350927,0.000357426,0.000331431,0.000272944,0.000298938,0.0004809,0.000591378,0.000376922,0.00033793,0,9.75E-05,0.000188461,0.000285941,0.000123474,0.000357426,0.000363925,0.000233952,0.000266445,0.000526391,0.000292439\nSRI-1052948-001.txt,COc1ccc(cc1OC)C(CC(O)=O)NC(=O)Cn1nnc2ccccc2c1=O,0.970587955,0.978637567,0.985544039,0.99266485,0.997666089,1,0.998190028,0.993927068,0.985162993,0.973898299,0.957894336,0.939246861,0.916026826,0.885209671,0.845985673,0.797259321,0.740554804,0.680254158,0.619334311,0.559962467,0.504877398,0.454793568,0.4102111,0.370296454,0.335621201,0.30525654,0.278723779,0.255591861,0.235691695,0.218625564,0.204269629,0.192466706,0.182969116,0.175514889,0.169877779,0.165202812,0.161213729,0.158015318,0.155293215,0.153387982,0.152456799,0.153154591,0.155314649,0.159172748,0.164738411,0.171742527,0.180032675,0.189420714,0.199551794,0.21064978,0.221952579,0.233529255,0.245039248,0.256808829,0.268114009,0.279059577,0.289371654,0.298778745,0.307016499,0.31413731,0.319550555,0.323096672,0.325030484,0.32531865,0.324137405,0.321579629,0.31713329,0.310083926,0.300171947,0.287937966,0.274679921,0.261700516,0.24987616,0.239549793,0.230368949,0.22281946,0.216505992,0.211204679,0.206898851,0.20331463,0.200199573,0.197179778,0.193616991,0.189120639,0.183340637,0.176774725,0.169310972,0.161613828,0.154123878,0.147603216,0.142066131,0.138191362,0.135655019,0.134411854,0.133299674,0.131530188,0.127767352,0.121160954,0.112256368,0.101177434,0.088898203,0.076583249,0.064627908,0.053970507,0.044589613,0.036420923,0.02966687,0.024348886,0.019959704,0.016492179,0.013608132,0.011152762,0.009230857,0.007890049,0.006632595,0.005548993,0.004582087,0.003791415,0.00324366,0.002900718,0.002452988,0.002129099,0.001986206,0.001676606,0.001428925,0.001252691,0.001093128,0.001088365,0.000931183,0.000907368,0.00078829,0.000774001,0.000585859,0.000526321,0.000659687,0.000614438,0.000593004,0.000402481,0.00041677,0.000412007,0.000311982,0.000321508,0.000302456,0.000295311,0.000271496,0.000266733,0.000252443,0.000252443,0.000238154,0.000188142,0.000138129,0.000107169,8.57E-05,7.86E-05,8.34E-05,9.29E-05,0.000104788,0.000116696,0.000128603,0.000135748,0.000145274,0.000152419,0.0001548,0.000152419,0.000138129,0.00012384,0.0001548,0.0001548,5.95E-05,0.000102406,0.000245299,0.000104788,4.76E-05,6.43E-05,0.000173853,0.000128603,0.000114314,0.000126222,0,7.38E-05,0.000126222\nSRI-1052830-001.txt,COc1cc(OC)c2cc(C(=O)N[C@@H](C)C(=O)NCCc3c[nH]c4ccccc34)n(C)c2c1,0.968487726,0.983981261,0.994616653,1,0.998686989,0.992515835,0.976759698,0.956145419,0.928440878,0.896797303,0.861608597,0.830398315,0.801223201,0.780779614,0.76654657,0.760480457,0.760729929,0.76657283,0.777116312,0.789498009,0.804925894,0.820196216,0.834836294,0.847217991,0.858221027,0.866401088,0.869027111,0.86888268,0.863578114,0.853625487,0.838263254,0.818457789,0.794382412,0.764494333,0.730240491,0.691574931,0.647045462,0.599540709,0.550100577,0.500737912,0.454584248,0.413967553,0.380007826,0.353440353,0.334484407,0.322411267,0.315919738,0.314425531,0.316574931,0.321440951,0.328439302,0.336732282,0.345910232,0.355751253,0.365608029,0.375484501,0.38510231,0.39452448,0.404311667,0.414361456,0.424697482,0.434341551,0.44270806,0.449212718,0.453385469,0.45492957,0.453690087,0.451285963,0.449405731,0.449303316,0.450253936,0.449990021,0.445268432,0.434331047,0.418251909,0.398422811,0.376709541,0.354094232,0.331321362,0.308372549,0.28605792,0.264779257,0.24555283,0.228104222,0.213250123,0.200818531,0.19057179,0.182796137,0.176999191,0.172771294,0.169983771,0.168379271,0.167495615,0.167330175,0.167479858,0.167960421,0.168459365,0.168866398,0.169264241,0.169663396,0.169698848,0.169357465,0.168943866,0.168295238,0.167235638,0.16591081,0.164172383,0.162206805,0.159886713,0.157473398,0.154520436,0.151386277,0.147946188,0.144232991,0.140387181,0.136291898,0.131970778,0.127517043,0.123043613,0.118280008,0.113440247,0.108503325,0.10350469,0.098552011,0.093366929,0.088236993,0.083238359,0.078346078,0.073574595,0.069086722,0.064840443,0.060670319,0.056530394,0.052475814,0.048675959,0.044929938,0.041380868,0.038078644,0.034877522,0.031851031,0.029051691,0.02640466,0.023986093,0.021633176,0.019508724,0.01772828,0.016541318,0.015901881,0.015036607,0.013397969,0.011520362,0.009820012,0.008592347,0.007796662,0.007257014,0.006817155,0.006390427,0.005945316,0.005479197,0.00498813,0.004462926,0.003857628,0.003185366,0.002498661,0.001871041,0.001433808,0.001179084,0.001029401,0.000778616,0.00071953,0.000547526,0.000464806,0.000325627,0.000299367,0.000259976,0.000137866,0.000143118,0.000120797,7.22E-05,2.49E-05,0\nSRI-1052958-001.txt,CSCC[C@H](NC(=O)Cn1nc(ccc1=O)-c1ccc(SC)cc1)C(O)=O,1,0.996438746,0.978632479,0.967948718,0.953703704,0.910968661,0.864672365,0.78988604,0.711538462,0.633190883,0.547720798,0.508547009,0.490740741,0.458689459,0.444444444,0.451566952,0.43019943,0.41951567,0.408831909,0.405270655,0.383903134,0.383903134,0.373219373,0.376780627,0.376780627,0.355413105,0.366096866,0.38034188,0.376780627,0.370014245,0.371438746,0.384259259,0.375712251,0.377136752,0.370726496,0.371794872,0.380698006,0.389245014,0.386752137,0.383190883,0.398504274,0.420584046,0.422720798,0.409188034,0.427350427,0.439102564,0.456908832,0.467948718,0.48005698,0.503205128,0.521723647,0.525641026,0.550925926,0.580840456,0.591524217,0.60505698,0.613603989,0.644230769,0.65491453,0.667735043,0.671296296,0.677350427,0.704059829,0.686609687,0.700498575,0.681623932,0.696225071,0.711182336,0.70477208,0.693376068,0.670584046,0.657051282,0.616452991,0.609330484,0.571937322,0.560541311,0.54522792,0.51531339,0.499643875,0.470797721,0.443732194,0.417022792,0.392094017,0.379273504,0.360754986,0.343660969,0.30982906,0.303418803,0.288817664,0.273860399,0.258547009,0.248931624,0.234330484,0.219017094,0.19017094,0.179843305,0.181623932,0.173076923,0.162749288,0.149216524,0.146367521,0.154558405,0.157763533,0.145299145,0.148504274,0.146367521,0.142806268,0.131766382,0.137464387,0.143518519,0.141025641,0.135327635,0.131054131,0.126780627,0.134259259,0.135683761,0.128205128,0.134615385,0.128917379,0.118589744,0.124287749,0.114672365,0.117165242,0.118233618,0.11502849,0.110754986,0.123219373,0.114316239,0.084757835,0.104344729,0.093660969,0.09045584,0.078347578,0.084401709,0.121438746,0.091168091,0.09508547,0.074430199,0.063034188,0.068019943,0.067307692,0.058760684,0.04522792,0.051994302,0.04522792,0.051994302,0.051282051,0.04985755,0.047720798,0.040954416,0.033475783,0.027777778,0.023504274,0.021011396,0.020655271,0.020655271,0.021011396,0.022079772,0.022079772,0.022079772,0.021723647,0.021723647,0.020655271,0.016737892,0.011039886,0.006054131,0.00462963,0.00534188,0.006410256,0.010327635,0.018518519,0.012464387,0.01531339,0,0.027777778,0.011039886,0.028133903,0.003561254,0.011396011,0.013532764,0.021011396\nSRI-1053212-001.txt,COC(=O)CNC(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(=O)OC,1,0.999746108,0.987136141,0.961069901,0.918796891,0.86078258,0.786392238,0.700746019,0.609175655,0.516420462,0.429335522,0.35287173,0.287579183,0.234134927,0.192158124,0.160040792,0.135413273,0.117006106,0.102957418,0.092463217,0.084804144,0.078668421,0.074140682,0.071136293,0.068851266,0.067327914,0.066777815,0.066803204,0.067666437,0.068855497,0.070759687,0.072998168,0.075638644,0.078888461,0.082574126,0.086784501,0.091189526,0.095793434,0.100676622,0.105885639,0.111111581,0.116371376,0.121885063,0.127551085,0.133297506,0.138777341,0.143850948,0.148928788,0.153862754,0.158250854,0.162693963,0.166629288,0.17003144,0.172900419,0.17488924,0.176205246,0.176801892,0.177753987,0.178888038,0.180364843,0.181955899,0.183001088,0.182742964,0.18107574,0.177305445,0.170873515,0.16332023,0.156448221,0.151988186,0.150168627,0.149445035,0.145522404,0.136420377,0.122337837,0.105288993,0.088929888,0.073573656,0.060836743,0.050317153,0.041312452,0.033860723,0.027488035,0.022130915,0.017772437,0.014205255,0.011382823,0.008911608,0.007007418,0.005500992,0.004193449,0.003334448,0.002780117,0.00215385,0.001701076,0.001375248,0.001222913,0.001032494,0.000846307,0.000892853,0.000736287,0.000596646,0.000528942,0.00057972,0.000596646,0.000617804,0.000562794,0.000334291,0.000245429,0.000410459,0.0004697,0.000351217,0.000291976,0.000393533,0.000325828,0.00011002,0.000372375,0.000562794,0.000499321,0.000245429,0.000283513,0.00030467,0.000236966,0.000198882,0.00019465,0.000245429,0.000207345,0.000427385,0.00022004,0.000236966,0.000287744,0.000253892,3.39E-05,0.000287744,0.000300439,0.000287744,0.000393533,0.000334291,1.27E-05,0.00019465,0.000207345,0.000334291,0.000114251,7.62E-05,0.000122714,0.000131178,0.000203114,0.00022004,0.000169261,9.31E-05,6.77E-05,5.08E-05,3.81E-05,3.39E-05,3.39E-05,3.39E-05,3.81E-05,4.23E-05,4.65E-05,4.23E-05,4.23E-05,3.81E-05,3.39E-05,2.54E-05,2.54E-05,3.39E-05,6.35E-05,5.08E-05,0.000198882,0.00035968,0.000207345,0,0.000232734,8.46E-05,0.000118483,0.000122714,0.000177724,0.000177724,1.27E-05,0.000126946,8.89E-05,1.69E-05\nSRI-0000274.txt,O=C(C1=NC2=C(O1)C=CC=C2)C1=CC=CC=C1,0.323807054,0.304616183,0.286462656,0.270383817,0.256379668,0.243931535,0.234076763,0.225778008,0.218516598,0.212292531,0.206587137,0.202437759,0.198288382,0.194657676,0.191026971,0.187396266,0.185062241,0.182520747,0.180186722,0.179149378,0.178526971,0.1781639,0.178941909,0.180342324,0.182780083,0.186462656,0.191390041,0.198184647,0.206742739,0.217271784,0.229979253,0.244139004,0.260114108,0.277334025,0.295492739,0.314610996,0.334356846,0.354476141,0.37495332,0.395539419,0.416452282,0.43721473,0.457764523,0.478153527,0.497795643,0.516908714,0.536063278,0.554102697,0.571483402,0.587748963,0.603475104,0.617733402,0.631307054,0.644559129,0.655969917,0.666939834,0.67781639,0.688397303,0.698366183,0.707904564,0.717717842,0.727997925,0.73776971,0.747681535,0.758832988,0.769854772,0.781841286,0.793729253,0.806649378,0.819756224,0.833532158,0.847676349,0.861960581,0.876255187,0.890456432,0.904481328,0.918309129,0.931353734,0.943443983,0.954854772,0.965762448,0.975165975,0.982873444,0.989533195,0.994538382,0.998127593,1,0.999875519,0.998309129,0.994533195,0.989636929,0.982743776,0.97376556,0.963729253,0.95223029,0.938677386,0.923874481,0.90719917,0.88939834,0.870025934,0.849247925,0.82753112,0.803241701,0.777956432,0.75126556,0.723584025,0.694092324,0.66378112,0.632930498,0.60125,0.568501037,0.536042531,0.50379668,0.472100622,0.440036307,0.409216805,0.379424274,0.350570539,0.32314834,0.297209544,0.272665975,0.249216805,0.227748963,0.207707469,0.188941909,0.171530083,0.155767635,0.141369295,0.128506224,0.116649378,0.10628112,0.097053942,0.088682573,0.080653527,0.073542531,0.066872407,0.06129668,0.055803942,0.051068465,0.046711618,0.042702282,0.039211618,0.035850622,0.032821577,0.030223029,0.028060166,0.026721992,0.025886929,0.024823651,0.022707469,0.020217842,0.017961618,0.01628112,0.015165975,0.014377593,0.01371888,0.013080913,0.012406639,0.011696058,0.010923237,0.010088174,0.009128631,0.008049793,0.00688278,0.005731328,0.004740664,0.003988589,0.003677386,0.003189834,0.002764523,0.002442946,0.002354772,0.001675311,0.001421162,0.001141079,0.00091805,0.000710581,0.000596473,0.000191909,3.11E-05,0\nSRI-0000506.txt,CCCCN(CCCC)CC(O)C1=C2C=CC(Br)=CC2=C2C=C(Br)C=CC2=C1,0.417405053,0.425525309,0.430779592,0.434600889,0.437944524,0.443198808,0.451319064,0.461827631,0.474724508,0.490487359,0.509593844,0.533954613,0.562662107,0.594999833,0.625188079,0.647208304,0.656952611,0.654229937,0.642957111,0.628483948,0.617927615,0.612673332,0.613867487,0.62165338,0.635792179,0.658051234,0.689099273,0.72898406,0.772833444,0.815536438,0.849593748,0.870926139,0.881410823,0.887252631,0.896552712,0.916103423,0.945890434,0.977726615,1,0.997325092,0.960573768,0.890739564,0.800084069,0.704288928,0.618467373,0.546569669,0.489169011,0.441899567,0.401933576,0.367049911,0.337172145,0.313546976,0.296833578,0.287676795,0.284853812,0.285049653,0.286759683,0.289243526,0.292931078,0.297827115,0.301333155,0.301046558,0.296871791,0.290690843,0.283377836,0.272917035,0.258926311,0.241262365,0.223588867,0.207888112,0.198530711,0.196357349,0.202237369,0.213343014,0.226225562,0.235764474,0.238391616,0.23268833,0.221549249,0.208556839,0.197866761,0.192196911,0.193825739,0.20222304,0.217274173,0.235750144,0.253452303,0.265260111,0.266516362,0.254297765,0.229994316,0.19762793,0.163121618,0.129675715,0.099621214,0.075088487,0.055671521,0.041078943,0.03084742,0.023687265,0.01895841,0.015614775,0.013646807,0.012352343,0.011688392,0.011172517,0.010365268,0.009624892,0.008999155,0.008363864,0.007633041,0.007360773,0.007098059,0.006902218,0.006591737,0.006601291,0.006897441,0.007150602,0.007652147,0.008254002,0.008788983,0.008989601,0.008922729,0.008679121,0.00808682,0.007160155,0.006572631,0.006075862,0.005846584,0.005493115,0.005354592,0.005168304,0.005134868,0.005163528,0.00558387,0.006061532,0.006930878,0.007833659,0.007981734,0.007919638,0.007131496,0.006195278,0.005077548,0.003706658,0.002703568,0.002130373,0.001834223,0.001643158,0.001495082,0.001280135,0.00103175,0.000802472,0.000673504,0.000616184,0.000577971,0.000554088,0.000520652,0.000491992,0.000472886,0.000453779,0.000434673,0.000410789,0.000391683,0.00038213,0.000391683,0.000363023,0.00031048,0.000429896,0.00033914,0.000358247,0.000124192,7.16E-05,0.000143299,0.000267491,0.000305704,0.000200618,0.000219725,0.000491992,0.000281821,0.000157629,0\nSRI-1053174-001.txt,COc1cccc(c1)S(=O)(=O)NCC(=O)N1CC(C)OC(C)C1,1,0.959327217,0.926911315,0.891743119,0.860856269,0.826605505,0.789602446,0.750152905,0.713455657,0.682568807,0.647094801,0.611620795,0.573394495,0.534250765,0.49235474,0.450152905,0.408562691,0.365749235,0.324464832,0.285015291,0.248929664,0.213761468,0.183180428,0.155963303,0.132110092,0.111926606,0.095412844,0.081957187,0.070428135,0.061039755,0.053944954,0.049541284,0.046024465,0.043639144,0.042385321,0.042446483,0.043027523,0.044342508,0.045504587,0.047920489,0.050917431,0.055474006,0.057889908,0.061406728,0.066513761,0.070183486,0.075963303,0.081009174,0.087094801,0.094678899,0.101376147,0.10883792,0.114373089,0.122721713,0.130703364,0.139908257,0.148593272,0.154678899,0.162996942,0.170336391,0.17733945,0.185351682,0.191834862,0.195902141,0.198195719,0.200397554,0.198440367,0.193455657,0.189785933,0.186269113,0.182446483,0.176422018,0.168623853,0.15529052,0.143700306,0.12648318,0.109938838,0.090795107,0.072324159,0.057584098,0.043792049,0.033333333,0.02617737,0.018165138,0.013272171,0.01,0.008012232,0.006146789,0.005168196,0.004495413,0.003455657,0.003211009,0.002629969,0.002752294,0.00204893,0.002324159,0.001529052,0.000917431,0.00293578,0.002599388,0.002507645,0.002568807,0.001957187,0.000856269,0.002140673,0.002568807,0.001865443,0.00146789,0.001620795,0.001926606,0.0017737,0.002813456,0.002782875,0.002293578,0.002293578,0.002140673,0.000978593,0.001987768,0.003119266,0.00351682,0.003027523,0.00116208,0.001009174,0.001284404,0.000733945,0.001834862,0.001865443,0.002293578,0.00266055,0.002018349,0.00204893,0.001926606,0.001896024,0.002752294,0.002385321,0.00293578,0.002996942,0.001834862,0.001865443,0.003088685,0.002568807,0,0.000917431,0.001406728,0.001743119,0.001804281,0.001681957,0.001223242,0.000642202,0.000733945,0.000733945,0.000733945,0.000795107,0.000917431,0.001009174,0.001009174,0.001131498,0.001253823,0.001314985,0.001345566,0.001314985,0.001314985,0.001192661,0.00116208,0.001529052,0.001896024,0.00204893,0.00235474,0.001529052,0.001712538,0.000672783,0.001926606,0.001009174,0.002110092,0.002262997,0.001192661,0.001406728,0.002232416,0.002018349,0.002446483,0.002874618\nSRI-1052915-001.txt,COc1ccc(cc1)S(=O)(=O)N1CCc2cc(OC)c(OC)cc2C1CC(O)=O,0.722634968,0.715710459,0.71494107,0.719124627,0.728020697,0.739994326,0.755237862,0.77259722,0.791495357,0.812172709,0.833956058,0.855883668,0.879446232,0.902143232,0.923974668,0.94388263,0.961386248,0.976004655,0.987593589,0.995624095,0.999519131,1,0.996104964,0.987978284,0.97576422,0.958741471,0.937535164,0.912001039,0.881754401,0.847853162,0.809624105,0.767778916,0.722894637,0.67492799,0.625884197,0.577196247,0.528873758,0.483402819,0.440499719,0.401635915,0.367157634,0.338065081,0.313497502,0.293382767,0.277182302,0.263516015,0.25225888,0.242684786,0.235221704,0.230422635,0.227335459,0.226537217,0.226960381,0.227296989,0.227474911,0.22707579,0.226724756,0.226667051,0.227638406,0.229835976,0.233485769,0.237751074,0.241626875,0.243314724,0.241920205,0.23820309,0.233336699,0.228032718,0.22206033,0.215467621,0.208297869,0.199954798,0.190438408,0.178330136,0.162634583,0.14273143,0.120308525,0.097274917,0.075972437,0.057752324,0.042917526,0.031516131,0.023197103,0.017301654,0.012714167,0.009727973,0.00735729,0.005828128,0.004702895,0.003832523,0.003212203,0.002837125,0.002466856,0.002062926,0.001716701,0.001673423,0.001784023,0.001380093,0.001495501,0.001336815,0.001173319,0.001187746,0.001057911,0.001091572,0.001067528,0.001048294,0.000904033,0.001072337,0.001269493,0.001250258,0.001029059,0.00095212,0.001005015,0.000976163,0.001240641,0.001105998,0.000942503,0.000947311,0.001057911,0.001072337,0.001000207,0.000980972,0.001144467,0.001182937,0.001187746,0.001096381,0.00120698,0.00120698,0.001053102,0.001086763,0.001019442,0.000995398,0.000774199,0.000807859,0.001115615,0.001009824,0.001053102,0.000870372,0.000812668,0.000928076,0.000692451,0.000783816,0.000788625,0.000851137,0.000803051,0.000908842,0.000928076,0.000932885,0.000908842,0.000798242,0.000692451,0.000620321,0.000543382,0.000504912,0.000495295,0.000490486,0.000490486,0.000490486,0.000480869,0.000466443,0.000447208,0.000423164,0.000384695,0.000326991,0.000245243,0.000129835,0.000120217,0.000139452,0,0.000235626,0.000230817,0.000197156,0.000423164,6.25E-05,0.000408738,0.000336608,0.000201965,0.000240434,0.000235626,0.000168304,0.000394312\nSRI-1052905-001.txt,COc1ccc(cc1)C(CNC(=O)CN1C(=O)c2ccccc2C1=O)N1CCOCC1,0.988080334,1,0.99750007,0.978300608,0.941621635,0.889043107,0.825884875,0.760026719,0.697568468,0.641890027,0.594971341,0.556052431,0.521813389,0.489474295,0.457055202,0.424056126,0.391357042,0.359437936,0.329418776,0.301679553,0.275940274,0.250660981,0.223641738,0.194782546,0.165457367,0.137054162,0.111844868,0.090427468,0.073333947,0.06001432,0.050024599,0.042742803,0.037522949,0.033887051,0.031481119,0.029893163,0.028999188,0.028477203,0.028389205,0.028417204,0.028681197,0.029135184,0.029787166,0.030491146,0.031247125,0.032077102,0.032917078,0.033785054,0.034699028,0.035715,0.036758971,0.037766943,0.038706916,0.039484894,0.039960881,0.040044879,0.039916882,0.04000488,0.040326871,0.041004852,0.041670833,0.041876827,0.041378841,0.040230874,0.038898911,0.037800942,0.037050963,0.03676897,0.036996964,0.037560948,0.03821093,0.039084906,0.040144876,0.041162847,0.04214882,0.043140792,0.044064766,0.044802746,0.045290732,0.045542725,0.045590723,0.045474727,0.045086738,0.044540753,0.043848772,0.043002796,0.041884827,0.040674861,0.039146904,0.037220958,0.035119017,0.032793082,0.030249153,0.027609227,0.024915302,0.022183379,0.019583452,0.016965525,0.014667589,0.012695645,0.010737699,0.009103745,0.007707784,0.006491818,0.005415848,0.004551873,0.003821893,0.00322791,0.002733923,0.002255937,0.002011944,0.00178395,0.001561956,0.001277964,0.001101969,0.001001972,0.000835977,0.000739979,0.000661981,0.000665981,0.000627982,0.000471987,0.000505986,0.000497986,0.00034199,0.000209994,0.000333991,0.000279992,0.000299992,0.000297992,0.000245993,0.000207994,0.000317991,0.000207994,0.000209994,0.000243993,0.000147996,0.000131996,0.000147996,0.000217994,0.000167995,0.000165995,0.000113997,0.000117997,0.000109997,0.000131996,0.000133996,0.000133996,0.000129996,0.000117997,0.000115997,0.000111997,9.8E-05,9E-05,8.2E-05,7.4E-05,6.8E-05,6E-05,5.2E-05,4.6E-05,4E-05,3.6E-05,3.4E-05,4.2E-05,4.2E-05,2.8E-05,5E-05,0.000181995,5.8E-05,0.000103997,8.4E-05,8.8E-05,6.6E-05,6.6E-05,6.4E-05,0.000107997,0.000101997,5.4E-05,0.000119997,0,4.4E-05\nSRI-1052977-001.txt,COC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)c1ccc(Br)cc1,0.99367194,1,0.997668609,0.98501249,0.960699417,0.924729392,0.877768526,0.822814321,0.764862614,0.706244796,0.653288926,0.607660283,0.571157369,0.542880933,0.522164863,0.508609492,0.49958368,0.493855121,0.490491257,0.488492923,0.486727727,0.484662781,0.482398002,0.478800999,0.474204829,0.468109908,0.460915903,0.452223147,0.441665279,0.430341382,0.417618651,0.403530391,0.388855953,0.373215654,0.357522065,0.341515404,0.325179017,0.309535387,0.293961699,0.279000833,0.265425479,0.253142381,0.24221149,0.232549542,0.224246461,0.217358868,0.211447127,0.206771024,0.203040799,0.200319734,0.198194838,0.196689425,0.195553705,0.194431307,0.192879267,0.190857619,0.188273106,0.186068276,0.1843597,0.18334055,0.182934221,0.182384679,0.180782681,0.17796836,0.17361199,0.166737719,0.158194838,0.149891757,0.1438801,0.141302248,0.140133222,0.137592007,0.130554538,0.118681099,0.103813489,0.088789342,0.074990841,0.063333888,0.053638634,0.045415487,0.03862781,0.032842631,0.027893422,0.02382348,0.020662781,0.017831807,0.015537052,0.013555371,0.012093256,0.010934221,0.009905079,0.009162365,0.008459617,0.008049958,0.007593672,0.007067444,0.006691091,0.006228143,0.005975021,0.005865112,0.00549209,0.005109076,0.004919234,0.004749376,0.00429975,0.003943381,0.003953372,0.003616986,0.003337219,0.002930891,0.002920899,0.002711074,0.002454621,0.002191507,0.002001665,0.001945046,0.001815154,0.001958368,0.001975021,0.00208826,0.002018318,0.001831807,0.001938385,0.001741882,0.001582015,0.00143214,0.001388843,0.001378851,0.001392173,0.001308909,0.001402165,0.001218984,0.001348876,0.001172356,0.001305579,0.001225645,0.001365529,0.001225645,0.001232306,0.001099084,0.001395504,0.001348876,0.00119567,0.001242298,0.001292256,0.001215654,0.00119234,0.001225645,0.001245629,0.001222315,0.001179017,0.00113572,0.001099084,0.00107244,0.001052456,0.001035803,0.00101249,0.001002498,0.000989176,0.000969192,0.000949209,0.000929226,0.000902581,0.000869276,0.000805995,0.000709409,0.000662781,0.000592839,0.000672773,0.000712739,0.00065945,0.000399667,0.000353039,0.000393006,0.000452956,0.00041632,0.000216486,9.99E-06,0,0.000103247,0.000156536\nSRI-1052967-001.txt,CSCC[C@H](NC(=O)N1CCN(CC1)C(=O)c1c[nH]c2ccccc12)C(O)=O,1,0.926359049,0.852718097,0.781917626,0.717221165,0.660048953,0.610914695,0.569032726,0.535007403,0.506330644,0.481884386,0.461003838,0.441936361,0.424953918,0.409059318,0.39440365,0.381077569,0.369171728,0.358595473,0.349348805,0.341884991,0.33593207,0.331490043,0.328709999,0.327168888,0.326866709,0.327471066,0.328800653,0.330323633,0.332009791,0.333626447,0.33446046,0.334454416,0.333883299,0.33210951,0.329492642,0.326349983,0.322926299,0.319152087,0.315380896,0.311307527,0.308249479,0.305451304,0.303085245,0.301232889,0.30045629,0.300447224,0.301489741,0.303472033,0.305965008,0.30882664,0.311449551,0.313320037,0.315275134,0.316925029,0.319330372,0.32182939,0.324993201,0.327597981,0.329967063,0.330495875,0.328954764,0.324745414,0.318148853,0.310286163,0.303671471,0.299380534,0.296543076,0.291962046,0.281959931,0.26528571,0.243616475,0.219995165,0.197011453,0.175142779,0.15483637,0.135886743,0.11822742,0.102094098,0.087272233,0.074133503,0.062620494,0.052421962,0.043695041,0.036052942,0.029970084,0.024591303,0.020297344,0.016595655,0.013667543,0.011219895,0.009228538,0.007484967,0.006179555,0.004919469,0.004070347,0.003505273,0.00284048,0.002577584,0.002148491,0.001689179,0.001417218,0.001344695,0.001054604,0.000843079,0.000773577,0.000707098,0.000776599,0.000652706,0.00062551,0.000589248,0.000522769,0.000274983,0.000462333,0.000353549,0.000459312,0.000410963,0.00016922,0.000262895,0.00037168,0.000187351,0.000271961,0.00045629,0.000290092,0.000335418,0.000362614,0.000256852,0.000187351,0.000132959,0.000374702,0.000271961,0.000223612,0.000160155,0.000120871,0.000302179,0.000278004,0.000229656,0.000120871,0.000235699,0.000265917,0.000142024,6.04E-06,7.25E-05,0.000193394,0.000166198,0.000114828,8.46E-05,5.74E-05,3.63E-05,1.51E-05,9.07E-06,1.51E-05,1.81E-05,1.81E-05,3.02E-05,4.53E-05,5.74E-05,6.04E-05,6.04E-05,6.35E-05,6.65E-05,6.04E-05,5.44E-05,3.93E-05,1.51E-05,9.07E-06,4.23E-05,6.04E-06,2.72E-05,7.25E-05,6.04E-06,0,2.72E-05,4.23E-05,0.000196416,0.000154111,5.44E-05,0.000111806,0.000157133,2.12E-05,0.000145046\nSRI-1053106-001.txt,O=C(Cn1nnc2ccccc2c1=O)NCc1noc(n1)-c1ccccc1,0.948943799,0.957847905,0.967741355,0.978234409,0.987828058,0.995113235,0.999070615,1,0.999010655,0.994873394,0.990106549,0.985099864,0.977215084,0.965702705,0.947594692,0.924210173,0.897377936,0.870125977,0.845602211,0.825545489,0.811754618,0.80416964,0.801861168,0.803719937,0.808846544,0.815532118,0.822937216,0.830222393,0.836098503,0.840406651,0.842936976,0.844256102,0.84415417,0.841926645,0.835798701,0.826945562,0.814716658,0.799993404,0.782631898,0.762758054,0.741040431,0.719163913,0.698348693,0.678115088,0.656418451,0.633213812,0.608003502,0.582028697,0.556416652,0.532105746,0.509623629,0.489402016,0.471288007,0.455269612,0.441769549,0.430281154,0.420096896,0.410269402,0.400309995,0.390077769,0.379398838,0.368992727,0.358508667,0.348342397,0.339393322,0.331172764,0.323506838,0.316191681,0.30935021,0.302011069,0.293955402,0.284829443,0.275040923,0.264910629,0.254975206,0.246056111,0.238087386,0.23143479,0.226215246,0.221898103,0.217808811,0.213848432,0.209237485,0.203178496,0.19611817,0.188032522,0.179437213,0.170934841,0.163140001,0.156433441,0.151225888,0.147865113,0.146240189,0.145451711,0.144366429,0.141518315,0.135720153,0.127010919,0.115897276,0.103041786,0.0895777,0.076296492,0.064046601,0.05318779,0.044052837,0.036090108,0.029587413,0.024511773,0.020335538,0.01675291,0.01406369,0.011695258,0.009875462,0.008265528,0.007393106,0.006361788,0.005540332,0.005084634,0.004634932,0.004023337,0.003636593,0.003024997,0.002647248,0.002209537,0.001921728,0.00160094,0.001511,0.001382085,0.001205202,0.000983349,0.000947373,0.000890411,0.000719524,0.000821456,0.000896407,0.000866426,0.000818458,0.000776486,0.00077049,0.000779484,0.000893409,0.000779484,0.000833448,0.000995341,0.000887413,0.000866426,0.00084544,0.000818458,0.000788478,0.000761496,0.000749504,0.000737512,0.000731516,0.000728518,0.00072552,0.000722522,0.000719524,0.000707532,0.000689544,0.000671555,0.000650569,0.000623587,0.000587611,0.000551635,0.000521655,0.000506665,0.000413726,0.00031779,0.000413726,0.000335778,0.00040773,0.000398736,0.000380748,0.000341774,0.000116923,0.000281813,0.000266823,0,5.1E-05,0.000101933,3E-05\nSRI-0000499.txt,COC1=CC2=CC=CC=C2C=C1C(N)=O,0.623629753,0.652404471,0.681830547,0.711333254,0.741142483,0.771488124,0.802485124,0.833635385,0.865820156,0.897008732,0.927009537,0.953830179,0.975210063,0.990229623,0.998314131,1,0.995747012,0.988160602,0.976091313,0.957700015,0.932680187,0.900495416,0.861682114,0.818922347,0.774668286,0.732176725,0.692482174,0.654665068,0.617077853,0.574417705,0.52251593,0.459912718,0.390267172,0.320242305,0.257393876,0.205921232,0.167008311,0.140160847,0.122179522,0.110953167,0.104328469,0.100646377,0.098554367,0.097339775,0.096611787,0.096527493,0.097017928,0.098312982,0.100393497,0.102968279,0.105665669,0.10786113,0.109263467,0.109516347,0.108796021,0.107500967,0.106079473,0.105730805,0.106623549,0.108523983,0.110979988,0.113259743,0.114248275,0.113409172,0.109738575,0.103634963,0.09614051,0.088500458,0.081504102,0.076185951,0.072530681,0.070595763,0.069457802,0.067752775,0.064771852,0.05972574,0.052028215,0.043211887,0.034472189,0.027023713,0.020801324,0.016276299,0.013034832,0.010916002,0.009624779,0.008789508,0.008448502,0.008360377,0.008494481,0.008778013,0.009157334,0.009632442,0.010188013,0.010793393,0.011356626,0.012080784,0.012912224,0.013743664,0.014624913,0.015291598,0.016061733,0.017015782,0.017743771,0.018686325,0.019582901,0.020494803,0.021494829,0.022307112,0.023295644,0.024418279,0.02537616,0.02628423,0.026935588,0.027487327,0.028472028,0.029265153,0.029970152,0.030671321,0.031154092,0.031272869,0.031686674,0.031912733,0.031698168,0.031663684,0.031529581,0.031276701,0.03117325,0.030786266,0.03051806,0.030177055,0.029970152,0.029755587,0.029138713,0.028774718,0.028192327,0.027380045,0.026652056,0.025414475,0.024176894,0.022851188,0.021460346,0.01983195,0.018433445,0.016835701,0.01522263,0.01378581,0.012785784,0.012211055,0.011483067,0.01018035,0.008697551,0.007348856,0.006398639,0.005804753,0.005425433,0.005122743,0.004823884,0.004505868,0.004180189,0.003835352,0.003471357,0.00304989,0.002578613,0.002118831,0.00171269,0.001432989,0.00123375,0.001222255,0.000923396,0.000996195,0.000961712,0.000827608,0.000547907,0.000448288,0.000452119,0.000467445,8.43E-05,0,6.51E-05,4.21E-05,1.15E-05\nSRI-0000466.txt,OCC1=CC2=CC=C(Cl)C=C2C2=C1C=CN=C2,0.585914476,0.594534993,0.601651932,0.608969347,0.619093442,0.632625649,0.650869068,0.674725848,0.702592169,0.735269942,0.773460837,0.820372487,0.873097973,0.9272268,0.972334155,0.99859666,1,0.980152764,0.949078808,0.914696979,0.882620637,0.852950021,0.820773441,0.783394479,0.742206451,0.698191696,0.65497885,0.613620417,0.576061025,0.542801868,0.513311682,0.488151801,0.466981416,0.448136565,0.432980494,0.420550911,0.410356649,0.402066919,0.395350935,0.388374331,0.381107035,0.370612057,0.35778152,0.344479862,0.331288467,0.317425473,0.302479902,0.286632185,0.268639362,0.249132936,0.22985706,0.21231531,0.196607927,0.184168321,0.174204607,0.167177883,0.16220605,0.158457128,0.155269542,0.152132074,0.149916802,0.148062388,0.146709168,0.145165494,0.144644253,0.144173132,0.143210842,0.14190774,0.14055452,0.136925884,0.13257553,0.126751669,0.1201259,0.112738317,0.105591307,0.097471983,0.089813757,0.083328321,0.077153626,0.072041459,0.067129769,0.063922135,0.06185722,0.060534071,0.059020469,0.058589443,0.058258656,0.058629538,0.05936128,0.060524047,0.061305908,0.06281951,0.064152683,0.065515928,0.066989435,0.068422846,0.070688238,0.072622842,0.074808043,0.077404222,0.079168421,0.081514003,0.084070087,0.086205168,0.088370321,0.090465307,0.0929412,0.094976043,0.097061005,0.09881518,0.100940238,0.103797037,0.105250496,0.107826627,0.110533069,0.113379844,0.115815641,0.118471963,0.120867665,0.121759788,0.123183176,0.123463844,0.124065275,0.124446182,0.124506325,0.123233295,0.12293258,0.122641888,0.122732102,0.123113009,0.124486277,0.126591287,0.127804174,0.128335438,0.127974579,0.125919689,0.122601792,0.118131152,0.112828532,0.106363144,0.09912592,0.091487741,0.084861971,0.07794551,0.070788477,0.064854353,0.060834787,0.05839899,0.055081093,0.04896654,0.042009984,0.03581524,0.031304505,0.028357491,0.026392815,0.024819069,0.023325515,0.021741745,0.020067761,0.018263467,0.016318839,0.014063471,0.011557507,0.008921233,0.006465388,0.004701189,0.00376897,0.003127443,0.002586155,0.0019747,0.001694032,0.001373268,0.000952266,0.000521241,0.000842004,0.000872076,0.000691646,0.000521241,0.000210501,8.02E-05,0\nSRI-1053308-001.txt,CCC(NS(=O)(=O)c1ccc2OCCOc2c1)C(O)=O,1,0.827966607,0.683164381,0.561717352,0.467402107,0.3980322,0.351918108,0.323196184,0.30878553,0.305505864,0.310375671,0.320314053,0.33532101,0.354402703,0.376565295,0.400516796,0.426654741,0.453488372,0.480421387,0.508248857,0.535082489,0.560325979,0.58427748,0.60484993,0.621347645,0.634068774,0.641313854,0.64213874,0.636414232,0.624647187,0.605982906,0.580799046,0.54975154,0.512353409,0.471447028,0.425780163,0.377777778,0.330063606,0.283681177,0.241005764,0.204323196,0.173176307,0.148042139,0.129129398,0.114907573,0.106231366,0.10110316,0.098688134,0.099026039,0.101769032,0.106370503,0.112184456,0.119389783,0.127479626,0.13698072,0.147406082,0.157811568,0.16879348,0.180451203,0.192039356,0.204541841,0.217213278,0.229576625,0.241860465,0.252474657,0.261190618,0.266994633,0.270960048,0.272351421,0.272868217,0.271655734,0.269618366,0.265334923,0.257732061,0.245309084,0.226296959,0.20165971,0.172858279,0.142407076,0.112671437,0.086682568,0.064400716,0.047286822,0.034496124,0.024677003,0.018386007,0.013625522,0.010296164,0.007662493,0.006310873,0.005595309,0.004402703,0.003697078,0.003637448,0.003080898,0.003061022,0.002623733,0.002017492,0.001977738,0.0019678,0.001610018,0.001401312,0.001162791,0.00165971,0.00165971,0.000854701,0.000765255,0.00061618,0.000387597,0.000874578,0.000795071,0.00042735,0.000586365,0.000298151,0.000715564,0.000467104,0.000457166,0.000556549,0.000854701,0.000775194,0.000556549,0.000198768,0.000258398,0.000347843,9.94E-05,0.000327967,0.000665872,0,0.000218644,0.000198768,0,3.98E-05,0,0.000178891,3.98E-05,0.000467104,0.000198768,0.000397535,0.00042735,0.000357782,8.94E-05,9.94E-05,0.000606241,0.00042735,0.000318028,0.000238521,0.000198768,0.000149076,0.000168952,0.000129199,8.94E-05,5.96E-05,4.97E-05,4.97E-05,3.98E-05,3.98E-05,4.97E-05,5.96E-05,5.96E-05,3.98E-05,2.98E-05,2.98E-05,2.98E-05,4.97E-05,7.95E-05,3.98E-05,0.000139137,0.000109322,0,0.000159014,0.000457166,0.000288213,0.00036772,0.00042735,9.94E-05,0.000159014,1.99E-05,0,0.000327967,9.94E-06,0\nSRI-0000328.txt,CC(C(O)=O)C1(O)CCCCC1,1,0.925158319,0.890616005,0.85607369,0.804260219,0.740932642,0.729418538,0.700633276,0.689119171,0.648819804,0.666090961,0.666090961,0.654576857,0.631548647,0.643062752,0.631548647,0.648819804,0.637305699,0.631548647,0.666090961,0.643062752,0.620034542,0.643062752,0.637305699,0.625791595,0.605066206,0.586067933,0.588946459,0.564766839,0.534830167,0.507772021,0.495106505,0.489349453,0.441565918,0.411053541,0.381692573,0.37248129,0.352331606,0.322394934,0.320667818,0.335060449,0.343696028,0.36039148,0.354058722,0.383419689,0.407599309,0.433506045,0.447322971,0.469775475,0.495682211,0.525618883,0.556706966,0.597582038,0.604490501,0.644214162,0.629821531,0.593552101,0.539435809,0.496257916,0.488198043,0.536557283,0.597006333,0.582037997,0.484743811,0.310880829,0.197466897,0.125503742,0.082325849,0.069660334,0.03511802,0.039147956,0.048934945,0.039723661,0.067933218,0.063903282,0.061600461,0.039147956,0.025906736,0.059873345,0.033966609,0.011514105,0.041450777,0.051237766,0.044905009,0.03626943,0.026482441,0.014968336,0.062751871,0.063327576,0.037420841,0.027058146,0.034542314,0.039723661,0.030512378,0.032815199,0.022452504,0.039147956,0.044329303,0.039147956,0.026482441,0.014392631,0.028785262,0.045480714,0.021876799,0.028209557,0.029936672,0.02302821,0.028785262,0.002302821,0.018422568,0.033390904,0.032815199,0.042602188,0.03511802,0.04835924,0.054116292,0.027058146,0.027633851,0.034542314,0.027633851,0.009786989,0.055267703,0.043753598,0.052964882,0,0.03626943,0.044329303,0.050662061,0.044329303,0.025331031,0.03511802,0.041450777,0.024755325,0.017846862,0.061024755,0.040299367,0.025331031,0.034542314,0.025331031,0.054116292,0.0109384,0.022452504,0.025906736,0.046632124,0.032815199,0.032239493,0.027633851,0.020149683,0.01324122,0.01324122,0.013816926,0.012665515,0.012665515,0.012665515,0.012665515,0.01208981,0.011514105,0.01208981,0.012665515,0.014392631,0.014392631,0.014968336,0.016695452,0.016119747,0.012665515,0.011514105,0.019573978,0.040299367,0.02417962,0.03511802,0.014968336,0.037420841,0.020725389,0.027633851,0.037420841,0.037996546,0.025331031,0.02302821,0.029360967,0.033966609,0.023603915\nSRI-031149.txt,COC(=O)C1CN(CC2=C1C=CC=C2)S(=O)(=O)C1=C(C)ON=C1,1.000000005,0.947822963,0.901533899,0.862675074,0.830895014,0.805634029,0.785528676,0.770691501,0.761231723,0.753638157,0.747598471,0.74402447,0.742565764,0.74233,0.743650636,0.745711331,0.748336532,0.751455195,0.754973697,0.759238443,0.764072525,0.768850915,0.773543895,0.778471862,0.78342485,0.788102094,0.792431423,0.79645903,0.799797223,0.801903928,0.803622555,0.80428428,0.803834242,0.80262452,0.800083319,0.795843577,0.789378419,0.78087423,0.77094267,0.75984384,0.747541114,0.733480963,0.717491987,0.699582017,0.679586679,0.657836746,0.634636064,0.609716126,0.58298879,0.555307951,0.527617811,0.499018865,0.468556785,0.436908902,0.405840645,0.375653741,0.346375695,0.318276066,0.291676228,0.266845671,0.244129939,0.222461362,0.202115573,0.183633859,0.166313566,0.150529233,0.13623824,0.12322045,0.111316081,0.100423451,0.090561401,0.081659502,0.073516077,0.065989654,0.059175317,0.053223053,0.047806181,0.043002144,0.039016292,0.035537232,0.032426237,0.029745666,0.027511817,0.02563574,0.023995315,0.022440774,0.021118232,0.01999855,0.018979209,0.01818737,0.017358903,0.016745229,0.016201766,0.015441676,0.014963479,0.014621555,0.014301065,0.013975399,0.013647579,0.01339389,0.013152618,0.012866762,0.012540193,0.012300307,0.01230494,0.012042506,0.011055866,0.00998884,0.009645915,0.008942644,0.008710443,0.008659486,0.008308335,0.008187731,0.00801032,0.007809333,0.007604224,0.007358106,0.007106803,0.006801638,0.006619947,0.006413238,0.006129632,0.006116216,0.005863447,0.005780104,0.005829444,0.005642724,0.005604943,0.005469977,0.005235182,0.005044563,0.004977482,0.005038878,0.004901518,0.004838777,0.004913136,0.004771278,0.004671567,0.004667298,0.004646421,0.004592658,0.004562517,0.004422727,0.004517161,0.004571696,0.004314094,0.00419409,0.00410509,0.003900878,0.003652122,0.003472222,0.003308322,0.003185416,0.003031957,0.002929181,0.002858479,0.002436365,0.002251504,0.002213841,0.002038027,0.001858233,0.001777171,0.001725325,0.001590572,0.001421543,0.001351732,0.001234434,0.001163138,0.00120909,0.001261741,0.001175119,0.001048131,0.000905274,0.000846316,0.000832298,0.000543101,0.000385011,0.000121582,2.49E-12,0.000389755\nSRI-1053403-001.txt,c1coc(c1)-c1ccnc2nncn12,0.646697975,0.659208449,0.668289261,0.674135277,0.67655163,0.674330144,0.668094394,0.65683107,0.64221603,0.624366194,0.6042559,0.581651305,0.557760586,0.531999143,0.504444921,0.475253815,0.444815558,0.413909621,0.383315471,0.353344895,0.324309683,0.295235497,0.26569363,0.236385603,0.208636514,0.183872791,0.163072666,0.146403726,0.134185553,0.125209969,0.119278212,0.115548454,0.113716702,0.112878773,0.113112614,0.114297406,0.116078493,0.118229826,0.120517567,0.123405499,0.126527272,0.129730888,0.133020247,0.136305708,0.139598963,0.142638892,0.145526823,0.14855506,0.151380634,0.154221798,0.156735585,0.158933687,0.16071867,0.162238634,0.163431222,0.164015823,0.16421069,0.164175614,0.16422628,0.164160025,0.164530273,0.165227897,0.16622172,0.167675429,0.169101857,0.171249294,0.173303194,0.175723444,0.178549019,0.182037142,0.186425551,0.191488201,0.197692772,0.204103903,0.211380244,0.219704971,0.229070289,0.239920494,0.252493326,0.266270437,0.280550305,0.295301752,0.309721925,0.324235633,0.338484323,0.3534852,0.369729329,0.387181636,0.406153906,0.426283688,0.448373833,0.471146014,0.494335211,0.51913401,0.544303057,0.570645205,0.597478418,0.624662393,0.651928211,0.67873804,0.705660892,0.731601614,0.756532923,0.78052887,0.803246488,0.824752031,0.845061091,0.864933648,0.884151451,0.903170489,0.921671181,0.940156283,0.95680184,0.971802716,0.985205682,0.9936902,0.99942709,1,0.996141629,0.987813005,0.975746829,0.960539392,0.942790888,0.923799131,0.902850907,0.88161428,0.861242863,0.84115985,0.823423037,0.808617027,0.794516437,0.774671162,0.746781768,0.710567648,0.667447435,0.618824171,0.565453943,0.509071068,0.451756728,0.39487889,0.340592786,0.289475223,0.243166982,0.201773292,0.165863164,0.137545063,0.120509773,0.111666699,0.101436171,0.084291755,0.065307793,0.048662237,0.037979617,0.031907555,0.028345383,0.025702983,0.023243759,0.020800125,0.018372079,0.01592065,0.013414658,0.010518931,0.007545258,0.004863885,0.002813882,0.001742113,0.001309508,0.001087359,0.000966541,0.000607986,0.000604088,0.000537833,0.000339069,0.0004404,0.000229943,0.000327377,0.000148099,0.000128612,5.46E-05,0,0.000163688\nSRI-1052880-001.txt,Cc1cc(O)c2c(C)c(CC(=O)N[C@@H](Cc3c[nH]c4ccccc34)C(O)=O)c(=O)oc2c1,1,0.996347813,0.982299342,0.957999846,0.92139497,0.870596365,0.807616886,0.736399234,0.660367335,0.58381666,0.51087667,0.445510819,0.388362388,0.339742645,0.299838349,0.267072419,0.24057331,0.219365723,0.20253661,0.18888241,0.177801342,0.168255852,0.159955427,0.152277533,0.145035412,0.138125307,0.131879237,0.126400956,0.122167739,0.119189961,0.117380469,0.1165359,0.116359516,0.116359516,0.116359516,0.116135405,0.116098053,0.11652345,0.117612881,0.119733639,0.123024758,0.127589992,0.13319693,0.139472051,0.146429883,0.153840088,0.161603061,0.169318307,0.177195411,0.185275875,0.193069975,0.200654489,0.208081294,0.215234186,0.221891127,0.227971189,0.233642455,0.239236942,0.245016113,0.251042222,0.257057956,0.262523786,0.26689811,0.270147727,0.27166463,0.271289035,0.269670452,0.26826768,0.268340309,0.27040919,0.273835191,0.275385295,0.273162856,0.266607595,0.257690863,0.2481682,0.239977755,0.233557376,0.229367736,0.227064368,0.226879683,0.228263779,0.231415866,0.235927147,0.241583887,0.248597747,0.256203012,0.264580216,0.273451296,0.282442732,0.291718458,0.300788748,0.309566448,0.318200966,0.326044868,0.333488275,0.340271797,0.346237728,0.35183429,0.356773044,0.361074739,0.364795405,0.367951642,0.370452145,0.371902644,0.372740987,0.372381994,0.370962621,0.368298184,0.364334731,0.359244495,0.352631131,0.34509642,0.336881074,0.327781732,0.318313022,0.308207253,0.298093185,0.287997792,0.277466627,0.266514216,0.255493325,0.243814627,0.231722982,0.218948627,0.205412708,0.191451392,0.177230688,0.16284605,0.148573468,0.134886066,0.121319021,0.107861956,0.094709931,0.082632812,0.07127783,0.060960401,0.051852759,0.043909251,0.036617328,0.030491613,0.025208393,0.020852744,0.017011722,0.014060921,0.011859233,0.010570592,0.009900333,0.009107642,0.007762973,0.006196268,0.00478727,0.003855548,0.003309795,0.002975703,0.002720464,0.002488053,0.002261866,0.00204813,0.001834394,0.001614433,0.001355044,0.001085281,0.000825892,0.000616307,0.000498026,0.000464824,0.000477274,0.000309191,0.000365219,0.000213736,0.00019091,0.000143182,0.000209586,0.00018676,0.000192985,0.000118281,0.000103755,9.13E-05,8.3E-05,0\nSRI-1053256-001.txt,CNC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)OC(C)(C)C,0.991884215,1,0.996124895,0.9790525,0.946625917,0.897090381,0.829495396,0.746217203,0.653031904,0.5559715,0.462749643,0.379910141,0.3089153,0.250240366,0.203921898,0.168351362,0.141298745,0.121265185,0.105728209,0.093993222,0.085036612,0.077980997,0.072424244,0.068366351,0.065295513,0.063211731,0.061822542,0.061310736,0.061456966,0.062272201,0.063650422,0.065650122,0.068070234,0.071097203,0.0744276,0.078277114,0.082770042,0.087394577,0.092428557,0.097586833,0.102756077,0.10826165,0.113708731,0.119334944,0.124851485,0.130302222,0.135796828,0.141240253,0.146153593,0.150949949,0.155230843,0.159299703,0.162973741,0.165817921,0.168270936,0.17000011,0.170961574,0.171934006,0.173388998,0.175417945,0.17739571,0.178868981,0.179410034,0.178700816,0.176192966,0.171221133,0.164498192,0.157738694,0.15321652,0.151187573,0.150156649,0.147272255,0.139756015,0.127004727,0.11148603,0.095503051,0.080591209,0.067320804,0.05584172,0.046033319,0.037679909,0.03086923,0.02542946,0.020450316,0.016666606,0.01374931,0.011025769,0.008938331,0.007205501,0.005955232,0.005037636,0.003984777,0.003418135,0.003202445,0.002833213,0.002489572,0.002442047,0.002109373,0.001721863,0.001575632,0.001352631,0.00108576,0.000855448,0.000917596,0.000734808,0.000720185,0.000764054,0.000654381,0.000526429,0.000526429,0.000639758,0.000639758,0.000742119,0.00057761,0.000420412,0.00043138,0.000548364,0.00038751,0.000760398,0.000504495,0.00043138,0.00033633,0.000500839,0.000478904,0.000592233,0.00069825,0.000486216,0.00072384,0.000541052,0.000515462,0.000533741,0.000467937,0.000522774,0.000628791,0.000435035,0.000467937,0.000500839,0.000219346,0.000212034,0.000380199,0.000358264,0.000409445,6.95E-05,0.000168165,0.00026687,0.000325363,0.00033633,0.000281493,0.000208378,0.000106017,6.58E-05,4.39E-05,2.19E-05,3.66E-06,0,1.83E-05,5.12E-05,8.77E-05,0.000113329,0.000138919,0.000157198,0.000182788,0.000197411,0.000197411,0.000201067,0.000208378,0.000226657,0.000307084,0.000288805,0.00012064,0.000168165,0.000168165,9.87E-05,0.000230313,0.000365576,0.000182788,0.000223001,0.000223001,9.14E-05,2.56E-05,0.000255903\nSRI-0000464.txt,COC(=O)C(=C\\C1=CC=C(Cl)C=C1)\\C1=CC=NC=C1,0.817200506,0.801714813,0.786001389,0.769718639,0.753435888,0.737722465,0.722919964,0.710850233,0.699008232,0.688760348,0.678284732,0.669630962,0.66302677,0.658016693,0.653917539,0.6514125,0.649362923,0.650046115,0.651867962,0.654031404,0.657902827,0.662343577,0.668264578,0.675438097,0.68375027,0.693656559,0.704815367,0.717568291,0.731687599,0.747401023,0.763786252,0.78145816,0.800337042,0.820172392,0.839871104,0.86015053,0.8800542,0.899741526,0.918734272,0.93614429,0.951778008,0.96588593,0.977067511,0.986358926,0.993088371,0.99818954,1,0.998121221,0.993543832,0.986245061,0.975860538,0.96381358,0.950832925,0.937522061,0.923812669,0.910547351,0.897042916,0.884324152,0.873040092,0.861516915,0.851109618,0.842490008,0.83432586,0.827573642,0.822210583,0.817439623,0.813909796,0.811177027,0.808740307,0.80702094,0.805324346,0.803377247,0.802853467,0.80228414,0.802705442,0.802477711,0.802614349,0.802375232,0.800963301,0.798458263,0.795372511,0.791865457,0.78830147,0.784669164,0.780843287,0.776436697,0.77080036,0.764651629,0.756419161,0.746638124,0.735752593,0.723398199,0.710360612,0.696138825,0.681290778,0.666260547,0.650649602,0.635334707,0.620076745,0.604021726,0.587534017,0.571888913,0.556562632,0.540575931,0.525317969,0.509798117,0.494540155,0.478997529,0.464707423,0.44984799,0.434658347,0.419867233,0.405588513,0.391412272,0.377281578,0.36316227,0.349259306,0.336096467,0.322705897,0.309224235,0.296733202,0.284356034,0.271215968,0.259100691,0.247452262,0.235211733,0.223950446,0.212404495,0.201621443,0.191191374,0.181672227,0.173177869,0.16389784,0.155175751,0.146282864,0.138130103,0.130649147,0.122143402,0.115220386,0.108935017,0.101863976,0.095088986,0.089760086,0.083679674,0.077883926,0.073112966,0.069856416,0.068023183,0.065449825,0.060382815,0.054530134,0.049132915,0.04510208,0.042392084,0.040479146,0.038839484,0.037199822,0.035434909,0.033533357,0.031461007,0.029183699,0.026530635,0.023513203,0.020222493,0.016965943,0.014449518,0.012878175,0.011705362,0.009359735,0.008733475,0.008016123,0.007162133,0.006137344,0.004953144,0.004269952,0.003393189,0.002243148,0.001389158,0.001491637,0.000614873,0\nSRI-1053048-001.txt,CC(Cc1c[nH]c2ccccc12)NC(=O)Cn1c(=O)[nH]c2ccccc2c1=O,0.984085053,0.996391168,1,0.994081516,0.976614772,0.945434467,0.899385777,0.841175324,0.775061531,0.705158464,0.638719875,0.580401158,0.531826285,0.494113996,0.466722964,0.447812687,0.435939631,0.42868588,0.42504096,0.423164368,0.422767396,0.422226072,0.4218291,0.420638186,0.418653328,0.415730175,0.411471754,0.405878065,0.399057373,0.39131643,0.382186086,0.372344802,0.361734837,0.350190185,0.33825578,0.325780049,0.312604205,0.299298443,0.285794196,0.272434301,0.259947744,0.247912291,0.236793481,0.227096551,0.218410093,0.210781023,0.204440306,0.198990971,0.194321143,0.190340602,0.187128741,0.184526774,0.182264037,0.180221438,0.178002007,0.175407257,0.17233975,0.16931194,0.167254906,0.166468181,0.166370742,0.166442919,0.165840244,0.163613595,0.159744928,0.154115151,0.147077929,0.139968531,0.134890905,0.132314199,0.131480559,0.129354957,0.124165458,0.114674231,0.102039712,0.088650947,0.075702459,0.064493428,0.054875892,0.046669409,0.039635797,0.033717313,0.028690211,0.024106995,0.020158933,0.017033685,0.014464197,0.012233939,0.01034652,0.00889577,0.007701246,0.006611379,0.005640604,0.005019885,0.00435586,0.003940844,0.003576352,0.003139683,0.003099986,0.002822106,0.002645274,0.002399873,0.002605576,0.002363785,0.002291608,0.002241084,0.00237822,0.002154472,0.002176125,0.00222304,0.002226649,0.002150864,0.002269955,0.002121993,0.001955987,0.00182246,0.001970422,0.001771936,0.00182246,0.001909072,0.00169976,0.001616757,0.001602321,0.001429097,0.00145075,0.001559015,0.001216176,0.001144,0.001255873,0.001367747,0.001216176,0.001115129,0.00111152,0.001237829,0.000970776,0.001100694,0.001064605,0.000963558,0.000985211,0.000945514,0.00071094,0.000732593,0.000747028,0.000523281,0.000541325,0.000537716,0.000501628,0.000451104,0.00040058,0.000342839,0.000303142,0.000263445,0.000234574,0.000220139,0.00021653,0.00021653,0.000209312,0.000202095,0.000187659,0.000166006,0.000147962,0.000158789,0.000169615,0.000176833,0.000169615,0.000144353,0.000119091,0.000166006,0,0.000176833,0.000249009,0.000335621,0.00040058,0.000151571,0.000230965,4.69E-05,0.000144353,0.000220139,0.000140744,0.000137136,3.61E-05\nSRI-1053130-001.txt,Cc1ccccc1OCC(=O)NC(Cc1c[nH]c2ccccc12)C(O)=O,0.997008845,1,0.998205307,0.986390244,0.961114983,0.922977755,0.866145807,0.792024982,0.704189711,0.609115844,0.516763929,0.434013622,0.362001561,0.301834475,0.253183337,0.214492745,0.184147476,0.16051735,0.142196525,0.128197919,0.117310114,0.109174172,0.102892746,0.098316279,0.095205477,0.093291138,0.092438659,0.092662996,0.093712891,0.095654151,0.098382084,0.101768072,0.106008034,0.110955405,0.116508484,0.122770468,0.129614231,0.136991915,0.144724051,0.152849524,0.161310006,0.17002025,0.179230017,0.188342571,0.197280143,0.206035254,0.214679692,0.223180555,0.23150494,0.239355227,0.24644576,0.251834326,0.255429694,0.257224387,0.257988628,0.258467212,0.259439338,0.260116835,0.259671152,0.257312627,0.253120523,0.247799258,0.241613549,0.234926821,0.226883605,0.217098041,0.206053201,0.196222769,0.189622785,0.187235844,0.186751276,0.182903155,0.171828403,0.153802207,0.132034075,0.110442422,0.091194338,0.07484618,0.06140692,0.050296274,0.041143339,0.033477008,0.027249423,0.022080707,0.017973851,0.014768829,0.0121067,0.010042803,0.008445527,0.007187746,0.006191691,0.00551569,0.0049713,0.00448075,0.004096387,0.003803254,0.00357443,0.00334112,0.003155669,0.002982182,0.002855058,0.002695031,0.002575385,0.002389933,0.00231665,0.002150641,0.0019951,0.001879941,0.00176179,0.001709445,0.001544932,0.001408834,0.001344524,0.001244321,0.00112617,0.000954178,0.000831541,0.000836028,0.000731337,0.000664036,0.000631134,0.000587762,0.000462133,0.00040231,0.000387355,0.000358939,0.000228823,0.000269204,0.000171991,0.000258735,0.000195921,0.000188443,0.000185452,0.00015554,0.000234806,0.00021985,0.000170496,0.000124133,0.000146567,0.000140584,0.000109177,0.000146567,0.000149558,0.000174983,0.000174983,0.000163018,0.000170496,0.000170496,0.000176478,0.000161522,0.000149558,0.000140584,0.000127124,0.000113664,9.87E-05,8.52E-05,7.93E-05,7.33E-05,6.73E-05,6.28E-05,6.13E-05,6.13E-05,6.13E-05,5.98E-05,5.08E-05,3.14E-05,4.94E-05,8.38E-05,4.64E-05,5.23E-05,8.67E-05,3.74E-05,8.97E-06,9.87E-05,9.72E-05,8.08E-05,8.38E-05,3.14E-05,4.04E-05,5.83E-05,0\nSRI-001739.txt,CC1=CC2=C(C=CC=C2)C2=NC=CC=C12,0.247329123,0.306959276,0.370078535,0.41901949,0.468860965,0.536266632,0.604200582,0.672741651,0.741927225,0.810747065,0.876311869,0.933734612,0.976682399,0.999661086,1,0.98108259,0.94922062,0.911081022,0.871390709,0.842187222,0.814592966,0.780772285,0.750933232,0.725278994,0.703410514,0.68426066,0.666671272,0.649711761,0.633197632,0.617140266,0.601589238,0.586993184,0.574098201,0.566213779,0.560736703,0.557763688,0.560471749,0.568949473,0.582602745,0.600462776,0.621100763,0.64314317,0.665320493,0.686895573,0.707323872,0.726452596,0.743698193,0.754864471,0.763404776,0.76985877,0.768669726,0.758616906,0.739373586,0.712001209,0.679324871,0.644500451,0.61070334,0.579748391,0.55281327,0.52981914,0.51474438,0.501158565,0.483951167,0.466735641,0.448617158,0.428926017,0.407481788,0.384698972,0.360937613,0.336929993,0.313285669,0.290462215,0.268920458,0.25880018,0.239926658,0.222952517,0.207893199,0.19467637,0.182985872,0.172594951,0.163146811,0.154335863,0.145923971,0.137646995,0.129348074,0.125234781,0.116976498,0.108780796,0.100879307,0.093399632,0.08660266,0.080627373,0.075625751,0.071739213,0.068822278,0.066719712,0.065586748,0.064635025,0.063604467,0.062677127,0.061685581,0.060579437,0.05935951,0.058072937,0.056824564,0.055878531,0.05535675,0.055355937,0.055923232,0.056987112,0.058502066,0.060605445,0.062907946,0.064735806,0.065862268,0.066027255,0.065077971,0.063067244,0.061132915,0.058870238,0.055833017,0.053146901,0.05117031,0.050234842,0.050450219,0.051838384,0.054014098,0.056651449,0.059231096,0.060910224,0.061795301,0.062011491,0.060642018,0.057740525,0.053610164,0.04864024,0.043374477,0.03816967,0.033466325,0.029469254,0.027683658,0.024752093,0.022482914,0.020694066,0.019483892,0.018607755,0.017864095,0.017491046,0.017116371,0.016768517,0.01669537,0.016404408,0.016271118,0.015926515,0.015690007,0.015555091,0.015264129,0.014927654,0.014709838,0.014337602,0.013984059,0.013718292,0.013212766,0.012761693,0.012072487,0.011443424,0.010711955,0.009968295,0.009165305,0.008297295,0.007515436,0.007026977,0.006210983,0.005256823,0.004414008,0.003660595,0.002743008,0.002157833,0.001291449,0.000581111,0\nSRI-1053058-001.txt,O=C(CCNC(=O)c1cc2ccccc2[nH]1)NCCc1c[nH]c2ccccc12,0.993188591,1,0.989782886,0.968497233,0.94040017,0.904640272,0.851851852,0.785440613,0.725840783,0.657726692,0.586206897,0.519795658,0.465304385,0.418475947,0.381864623,0.348659004,0.326521924,0.303533418,0.289059174,0.276287782,0.26351639,0.253299276,0.24137931,0.229459344,0.222647935,0.217539378,0.209876543,0.201362282,0.200510856,0.19608344,0.189272031,0.186206897,0.186717752,0.189357173,0.19054917,0.195402299,0.199829715,0.20034057,0.203831418,0.215070243,0.221370796,0.222307365,0.227415922,0.2351639,0.23746275,0.239506173,0.245551298,0.247424436,0.247765006,0.249808429,0.251170711,0.256279268,0.255512984,0.254746701,0.254491273,0.255342699,0.249638144,0.250744998,0.255598127,0.253384419,0.253299276,0.259174117,0.262239251,0.266411239,0.273648361,0.279608344,0.284546616,0.286504896,0.287782035,0.294423159,0.298680289,0.297147722,0.298850575,0.298339719,0.29314602,0.290080885,0.286419753,0.277139208,0.269987229,0.261643252,0.252022137,0.245381013,0.240272456,0.225542784,0.214474244,0.206470839,0.196934866,0.183822903,0.174457216,0.168582375,0.154278416,0.142273308,0.129501916,0.116389953,0.103873989,0.093401447,0.082503193,0.072286079,0.064878672,0.057215837,0.051170711,0.045040443,0.043167305,0.035589613,0.034142188,0.030651341,0.027841635,0.023584504,0.025798212,0.026479353,0.025883355,0.019582801,0.021285653,0.021370796,0.014389102,0.01464453,0.019667944,0.017113665,0.01464453,0.015921669,0.016006811,0.018135377,0.01140911,0.011834823,0.013963389,0.012686249,0.007322265,0.007066837,0.01302682,0.013622818,0.011664538,0.00749255,0.006215411,0.011834823,0.010302256,0.010727969,0.006726266,0.008003406,0.011919966,0.00749255,0.003661132,0.005619413,0.005363985,0.002298851,0.00553427,0.005619413,0.005193699,0.005023414,0.004682844,0.004171988,0.00357599,0.00391656,0.003661132,0.003150277,0.002469136,0.001787995,0.001447424,0.001447424,0.001362282,0.001447424,0.00161771,0.001873138,0.002213708,0.002469136,0.002469136,0.002128565,0.003405705,0.005619413,0.00034057,0.002128565,0.005704555,0.004342273,0.003490847,0.002809706,0.004342273,0.003320562,0.000851426,0.003405705,0.002469136,0,0.00195828\nSRI-1053120-001.txt,CCCCNC(=O)C[C@@H]1NC(=O)N(CCc2c[nH]c3ccccc23)C1=O,0.994037325,1,0.994928299,0.978091167,0.946701453,0.897309486,0.828795837,0.744861476,0.650715178,0.553393356,0.460823397,0.378533913,0.30775856,0.249868067,0.203971461,0.168378175,0.141626097,0.121316449,0.106169884,0.094907053,0.086454219,0.080148861,0.075214234,0.071718872,0.069160177,0.067446764,0.066464408,0.06609888,0.066304489,0.066985285,0.068223511,0.069898086,0.072082116,0.074656804,0.077740946,0.081122079,0.084912148,0.089022053,0.093472356,0.098116846,0.102996644,0.108043215,0.11319259,0.118556713,0.123989372,0.129383194,0.134735895,0.139958376,0.145189995,0.150152037,0.154794242,0.159239976,0.163336174,0.166877226,0.169899685,0.172063154,0.173698892,0.174950825,0.176486043,0.178555845,0.180854102,0.1827914,0.183869708,0.183568147,0.181297304,0.176913253,0.170486815,0.163934726,0.158901863,0.156546492,0.156116996,0.153985511,0.147511097,0.135709113,0.12019245,0.10382822,0.088382379,0.074882974,0.063359705,0.053383076,0.04480916,0.03745291,0.031216089,0.025712608,0.021205191,0.017374001,0.01402942,0.011447879,0.009225012,0.007470478,0.006079187,0.004863807,0.004050507,0.00334915,0.002739175,0.002268558,0.001960144,0.001658583,0.001473535,0.001229088,0.001050893,0.000920674,0.000795023,0.000639674,0.000596268,0.000443203,0.00045691,0.00043178,0.000363243,0.000415788,0.000370097,0.000328975,0.000310699,0.000354105,0.000322122,0.000233024,0.000281,0.000164488,0.000164488,0.000340398,0.000274146,0.000333544,0.000267292,0.000171341,0.000221601,0.000233024,0.00022617,0.000137073,0.000178195,0.000196471,0.000203325,0.000164488,0.000171341,0.000169057,0.000189618,0.000203325,0.000235309,0.00023074,0.000162203,5.03E-05,9.82E-05,0.000157634,0.000214748,0.000139358,0.000118797,8.45E-05,8.45E-05,8.45E-05,7.08E-05,4.34E-05,1.37E-05,0,0,6.85E-06,9.14E-06,1.14E-05,1.37E-05,1.83E-05,2.51E-05,2.97E-05,2.97E-05,3.43E-05,4.34E-05,5.48E-05,8E-05,7.08E-05,8.45E-05,0.00010052,4.34E-05,0.000123366,7.54E-05,2.74E-05,7.54E-05,0.000121081,0.000132504,0.000139358,0.000143927,7.31E-05,7.77E-05,8.91E-05,0.000166772\nSRI-1053189-001.txt,COc1ccc(cc1)C(=O)NC(Cc1c[nH]c2ccccc12)C(O)=O,1,0.994780744,0.981341943,0.957277111,0.920086008,0.866955861,0.79829296,0.716722557,0.627682682,0.536861383,0.450884304,0.374595664,0.308526764,0.253927724,0.210454763,0.176420216,0.150292685,0.129978217,0.11463298,0.102913095,0.094130994,0.087567858,0.08262988,0.078942023,0.076348021,0.074754117,0.074097803,0.07406655,0.074691611,0.07596986,0.077663774,0.079979623,0.082936159,0.086070838,0.089511796,0.093243408,0.097837603,0.102653695,0.107722936,0.112642162,0.11747388,0.122439986,0.127646741,0.133191028,0.138507168,0.143613913,0.148598771,0.153424238,0.158159072,0.162543871,0.166316112,0.169832077,0.172929253,0.175648266,0.177739093,0.179039219,0.179776791,0.180439355,0.181708228,0.18327713,0.185089806,0.186521194,0.186643081,0.18539296,0.182080139,0.176342083,0.168913238,0.161621907,0.156824567,0.155121277,0.154355578,0.151461548,0.143129491,0.129128134,0.112307755,0.095274855,0.079807731,0.066597077,0.055686645,0.046426373,0.038531858,0.032031228,0.026749466,0.02214277,0.018208014,0.014942073,0.012307442,0.010394757,0.008782101,0.007453847,0.006481878,0.00578181,0.005122371,0.004753586,0.004466058,0.004137901,0.003787867,0.003397204,0.003097175,0.002753392,0.002356478,0.001959565,0.001725167,0.001490769,0.001253246,0.000893837,0.000884461,0.000787576,0.00071882,0.000500048,0.000515675,0.000418791,0.000421916,0.000346909,0.000275027,0.000218771,0.000150015,0.000225022,0.000275027,0.000212521,0.000221896,0.00020627,0.000243774,0.000231272,0.000196894,0.000284403,0.000165641,0.000209395,0.00030628,0.000268776,0.000340658,0.000321906,0.000390663,0.000318781,0.000321906,0.00030628,0.000403164,0.000200019,0.000125012,0.000368786,0.000315656,0.000256275,0.000250024,0.000225022,0.000278152,0.000287528,0.000268776,0.000218771,0.000171892,0.000143764,0.000134388,0.000137513,0.000140639,0.000146889,0.000143764,0.000143764,0.000140639,0.000134388,0.000140639,0.000143764,0.000140639,0.000137513,0.000134388,0.000134388,0.000165641,0.000200019,0.000225022,0.000125012,6.56E-05,0.000131263,0.000140639,0.000278152,0.000196894,0.000234398,0,0.000168766,0.000150015,0.000171892,0.00015939,0.000243774,6.88E-05\nSRI-1053199-001.txt,CSCC[C@H](NC(=O)NCCc1c[nH]c2ccccc12)C(O)=O,0.982332701,0.99602057,1,0.992967386,0.97204107,0.934442314,0.878833204,0.804596242,0.714990446,0.615847739,0.515401425,0.42233078,0.339448849,0.270186176,0.21529748,0.17275874,0.141129129,0.118075877,0.101506352,0.089705282,0.081334756,0.075502832,0.071489096,0.068710356,0.066995084,0.066000226,0.065794394,0.066113434,0.066676043,0.067660609,0.069293548,0.071080861,0.073190646,0.075622901,0.07826785,0.081430811,0.084487425,0.087715567,0.091159832,0.094696723,0.098494334,0.102394862,0.106710486,0.111273109,0.115921495,0.120851186,0.125852919,0.130751735,0.135575079,0.140604256,0.144988491,0.149314406,0.153369308,0.156950796,0.160027993,0.162487693,0.164199534,0.165527154,0.167050316,0.168978281,0.171112079,0.173098364,0.17427161,0.174172124,0.172597505,0.168947406,0.163427662,0.157245822,0.152477367,0.149695196,0.148624867,0.146521943,0.141444739,0.13179462,0.118748263,0.104137579,0.089712143,0.076857897,0.065509659,0.055715457,0.047135668,0.039674236,0.033142481,0.027615875,0.022754795,0.018768503,0.015430585,0.012586664,0.010253895,0.008452859,0.006905684,0.005838785,0.004912538,0.004147527,0.00353689,0.003025739,0.002826768,0.002833629,0.002703268,0.002689546,0.002679254,0.002909101,0.002799323,0.002826768,0.002895379,0.002730713,0.002926254,0.003008587,0.002864504,0.002850782,0.003073767,0.003142378,0.003382516,0.003482002,0.003550613,0.003715279,0.003951986,0.004222999,0.00422986,0.004198985,0.004284749,0.004308763,0.004212707,0.003790751,0.003883375,0.00359521,0.00353689,0.003667251,0.003615793,0.003602071,0.003385946,0.003372224,0.003300183,0.003324197,0.003403099,0.003286461,0.003382516,0.003403099,0.003385946,0.003430544,0.003289891,0.00334478,0.003385946,0.003313905,0.003265877,0.003180114,0.003159531,0.003142378,0.003111503,0.003025739,0.002915962,0.002819907,0.002747865,0.002692977,0.002644949,0.002603783,0.002559185,0.002511158,0.002456269,0.002384228,0.002298464,0.002202409,0.00208234,0.001931396,0.001777022,0.001636369,0.001557467,0.00164323,0.001403092,0.001210982,0.000950261,0.000960552,0.000816469,0.000734136,0.000826761,0.000518012,0.000367068,0.000397943,0.000456262,0,3.43E-06\nSRI-1052829-001.txt,COc1ccc(OC)c2n(C)c(cc12)C(=O)N[C@@H](C)C(=O)NCCc1c[nH]c2ccccc12,0.987272267,0.99543107,1,0.995594246,0.985640507,0.964917147,0.934892753,0.893119681,0.843204125,0.786108822,0.727414394,0.673957917,0.627730139,0.59010174,0.561709106,0.541426322,0.528029568,0.520131846,0.516411432,0.515905586,0.517357853,0.520458198,0.524145977,0.52767058,0.530526161,0.531815252,0.530232444,0.525076081,0.515954539,0.502231433,0.483941028,0.460835298,0.433599582,0.402189823,0.367865739,0.331766299,0.295399251,0.261274242,0.23084517,0.205091093,0.185090604,0.170287271,0.160410225,0.154756174,0.152543507,0.153106464,0.155707491,0.159875007,0.165201074,0.171546991,0.178455865,0.186157775,0.194099554,0.202442746,0.21094585,0.219411424,0.227865576,0.236509011,0.245677874,0.255460279,0.266180946,0.27696362,0.287774034,0.298057389,0.307355161,0.315605342,0.322910735,0.330008893,0.337794023,0.347623749,0.358946535,0.370042507,0.378769163,0.383969584,0.386544502,0.38784012,0.389107998,0.391080797,0.394032652,0.397483825,0.401083489,0.404883859,0.408589588,0.411567551,0.414214266,0.415733436,0.416399194,0.415725277,0.413938499,0.411027438,0.406592313,0.400804458,0.394135452,0.385922801,0.376855108,0.366876892,0.356037106,0.344761641,0.333094552,0.320882456,0.308596931,0.296094381,0.283224685,0.270614439,0.257891602,0.244795092,0.23196619,0.219034487,0.20617295,0.193262461,0.180537991,0.168019124,0.15560469,0.14353782,0.1318691,0.120541418,0.109812592,0.099441122,0.08984637,0.080638345,0.072115659,0.064263627,0.056930495,0.050217432,0.04418155,0.038752682,0.033832924,0.02933416,0.025437516,0.021996133,0.019050805,0.016431829,0.014181631,0.012172934,0.010402474,0.008858828,0.007566474,0.006406292,0.005409286,0.004666835,0.003896644,0.003304315,0.002711986,0.002393793,0.002005434,0.001695399,0.00153875,0.00148327,0.001406578,0.001202608,0.000951316,0.000727765,0.000576011,0.000486265,0.000430785,0.000391623,0.000355724,0.000323089,0.000290453,0.00025945,0.000228446,0.00019418,0.000163176,0.000133804,0.000107696,8.97E-05,7.67E-05,0.000124014,7.02E-05,7.02E-05,3.1E-05,0.000114223,9.79E-05,8.65E-05,5.55E-05,0.000115855,7.34E-05,7.51E-05,3.1E-05,4.41E-05,0\nSRI-1053397-001.txt,C[C@H](NS(=O)(=O)c1ccccc1)C(O)=O,0.998040416,1,0.990691978,0.97195346,0.94329455,0.903123086,0.854623393,0.799510104,0.739620331,0.674954072,0.609430496,0.54390692,0.479853031,0.418983466,0.362033068,0.310593999,0.266503368,0.227924066,0.195101041,0.165829761,0.14206981,0.122229026,0.10569504,0.092590325,0.081971831,0.073619106,0.067091243,0.061984078,0.058064911,0.054929577,0.053104715,0.052039192,0.052443356,0.052749541,0.053361911,0.053913043,0.055039804,0.057611758,0.061947336,0.066013472,0.068903858,0.069687691,0.0687079,0.069124311,0.072541335,0.078836497,0.084409063,0.084213105,0.077709737,0.068487446,0.062841396,0.062229026,0.066111451,0.070471525,0.069859155,0.061347214,0.048462952,0.035786895,0.025584813,0.019865279,0.016031843,0.013570116,0.012651562,0.011769749,0.011206369,0.011524801,0.011365585,0.01077771,0.010251072,0.010569504,0.010128598,0.009895897,0.010006124,0.009418249,0.009736681,0.009148806,0.008573178,0.00860992,0.008854868,0.00860992,0.007740355,0.007703613,0.007997551,0.007054501,0.006748316,0.006160441,0.006319657,0.006086957,0.006148194,0.00620943,0.00508267,0.00536436,0.004727495,0.004543784,0.004580527,0.004225352,0.003723209,0.00390692,0.003600735,0.002927128,0.002706675,0.002559706,0.001800367,0.001212492,0.001396203,0.00145744,0.001163503,0.000453154,0.000220453,0.000122474,0.000134721,0.000404164,0.000551133,0.000453154,0.001077771,0.000477648,0.000134721,0.000293938,0.000355175,0.000930802,0.000502143,0,0.00061237,0.000796081,0.000477648,0.000661359,0.000967544,0.00033068,0.000355175,0.000428659,0.000551133,0.000293938,0.000269443,0.000306185,0.000465401,0.000367422,0.000600122,0.000110227,0.000367422,0.00033068,0.000526638,0.000771586,0.000820576,8.57E-05,0.000220453,0.00033068,0.000465401,0.000514391,0.000502143,0.000391917,0.000244948,0.000183711,0.000146969,0.000134721,0.000146969,0.000183711,0.000244948,0.000293938,0.00033068,0.000379669,0.000428659,0.000453154,0.000489896,0.000514391,0.000526638,0.000514391,0.000502143,0.000661359,0.000575628,0.000220453,0.000722596,0.000416412,0,0.001065524,0.000747091,0.000171464,0.000416412,0.000367422,0.000428659,0.000477648,0.000293938\nSRI-1052787-001.txt,CC1(C)C2CCC1(CS(=O)(=O)Nc1ccc(cc1)S(=O)(=O)NC1CCCCC1)C(=O)C2,0.176047536,0.180739749,0.189271044,0.201641421,0.216571187,0.235340036,0.257094838,0.281409029,0.308282608,0.33814214,0.370987625,0.40553937,0.442607846,0.481467895,0.521564981,0.5631977,0.60542761,0.648553306,0.691380406,0.734634071,0.776266791,0.816577159,0.854584078,0.890202234,0.921682713,0.948897543,0.97107891,0.987245714,0.99709936,1,0.99552107,0.983236005,0.963955279,0.937461343,0.90394615,0.863631516,0.816995193,0.765833017,0.710554492,0.653083423,0.5947251,0.537322282,0.48268787,0.431709117,0.385571874,0.344391313,0.308184498,0.2765078,0.248448371,0.223549787,0.201312966,0.181371064,0.163459611,0.148017967,0.1347646,0.122987148,0.112305966,0.101846599,0.091762608,0.081495195,0.071688471,0.062769002,0.054937274,0.048201816,0.043078774,0.038651032,0.034739433,0.031036851,0.027423848,0.023768188,0.020432451,0.017672577,0.015044939,0.013069944,0.011333825,0.009785395,0.008821359,0.007968229,0.007298523,0.006492315,0.005822609,0.005263809,0.004662353,0.004137678,0.003485034,0.003122454,0.002840921,0.002427153,0.002043245,0.001817166,0.001650806,0.001582555,0.001360742,0.00128396,0.001305288,0.001109068,0.001130397,0.001143194,0.001045084,0.000972568,0.000882989,0.001040818,0.00089152,0.000904317,0.000789145,0.000848864,0.001023755,0.000942708,0.00098963,0.000895786,0.000814739,0.000895786,0.000976833,0.00089152,0.000763551,0.000819004,0.000882989,0.001002427,0.00082327,0.000708097,0.000784879,0.00082327,0.000631316,0.00065691,0.000742223,0.00082327,0.000652644,0.000511878,0.000635581,0.000631316,0.000772082,0.000609988,0.000720894,0.000499081,0.000622785,0.00065691,0.000580128,0.000622785,0.000614253,0.000499081,0.000396705,0.000537472,0.000324189,0.000435096,0.000575862,0.000516143,0.000469221,0.000439362,0.000400971,0.000328455,0.000238876,0.00019622,0.00016636,0.000145032,0.000132235,0.000119438,0.000110907,0.000106641,0.000106641,0.000106641,0.000110907,0.000115172,0.000119438,0.000119438,0.000119438,0.000106641,8.1E-05,9.38E-05,4.69E-05,0,0.000157829,0.000354049,0.000302861,0.00016636,1.71E-05,0.000136501,0.000119438,7.68E-05,0.000153563,0.000110907,0.000217548\nSRI-1052797-001.txt,COc1ccc2c(C)c(CC(=O)N[C@@H](Cc3c[nH]c4ccccc34)C(O)=O)c(=O)oc2c1OC,1,0.999282919,0.996102823,0.984005986,0.964005674,0.935493928,0.895524482,0.843785562,0.781041014,0.710221516,0.638591404,0.570827293,0.509220721,0.454878486,0.408782678,0.370434457,0.339490873,0.314969836,0.295826903,0.280768212,0.269559931,0.261110851,0.255187142,0.251586151,0.25015199,0.250666417,0.252646183,0.255296263,0.257883989,0.259975993,0.261068762,0.261378977,0.261653338,0.262602691,0.265003352,0.26895353,0.273837472,0.278333255,0.280690268,0.278401846,0.270392368,0.256738219,0.239408253,0.221599713,0.205721056,0.193893903,0.186381705,0.182677828,0.182609238,0.18477295,0.188681039,0.19352601,0.199170681,0.205144273,0.211092924,0.216548972,0.221892781,0.227556158,0.233500133,0.240359164,0.247439555,0.254558918,0.261296357,0.266942587,0.271173362,0.273500756,0.274504669,0.275613026,0.278598263,0.284392586,0.291878283,0.298101295,0.300109121,0.29736395,0.291708366,0.285745686,0.281508675,0.279471231,0.279605294,0.281630267,0.285200081,0.289851751,0.295713105,0.302130976,0.309228515,0.317068076,0.325297355,0.333885174,0.342638233,0.351318025,0.360379741,0.369114094,0.377634881,0.385923397,0.393968729,0.401635255,0.408625232,0.415510764,0.421878751,0.42752654,0.432625606,0.437121389,0.441246161,0.444939126,0.447553352,0.449790332,0.451419352,0.452228406,0.452173845,0.451126284,0.449698359,0.447003071,0.443550172,0.439129215,0.433651343,0.427673074,0.420912251,0.413421877,0.405448253,0.396653104,0.387143993,0.37711266,0.366591841,0.355102963,0.342912594,0.329782226,0.316050133,0.302137212,0.288557889,0.275369842,0.262693105,0.249221344,0.234793995,0.219778952,0.204871471,0.189786279,0.175123541,0.160732046,0.146795741,0.133274096,0.120441472,0.108276045,0.096858875,0.086132286,0.076266193,0.067851408,0.062429656,0.05942883,0.0555223,0.0483437,0.040313957,0.033217977,0.028276357,0.025167968,0.023110259,0.021489033,0.019922368,0.018315172,0.01664874,0.014924629,0.013094514,0.010994715,0.008712529,0.00643346,0.004406928,0.003067858,0.002332071,0.001884675,0.001558871,0.001251773,0.000969618,0.00088388,0.000636019,0.000498839,0.000444278,0.000283714,0.000208889,0.000121592,2.96E-05,0,4.83E-05\nSRI-1052933-001.txt,CSCCC(NS(=O)(=O)c1ccc(Oc2ccccc2Cl)cc1)C(O)=O,0.798074041,0.769788364,0.744035733,0.721238322,0.703084827,0.691263948,0.687042205,0.690419599,0.700973956,0.717860927,0.740236164,0.766199883,0.795414343,0.825642022,0.857305093,0.888123815,0.917169406,0.943639733,0.965888318,0.983661855,0.994933909,1,0.997678041,0.987545859,0.969181277,0.943133124,0.909612486,0.868281624,0.820702582,0.768690711,0.713090358,0.657570218,0.60261157,0.550067759,0.500842238,0.455032106,0.413637918,0.376904534,0.344359118,0.315520393,0.290265928,0.267675382,0.247377242,0.228924004,0.212303003,0.197818203,0.18555404,0.175126336,0.165935602,0.156563332,0.147478142,0.138760243,0.130494071,0.122928707,0.115641979,0.108034399,0.099713344,0.091476723,0.084320869,0.078469534,0.073095255,0.067286137,0.061088619,0.0545027,0.047954777,0.041512397,0.035694836,0.030725844,0.026765849,0.024021717,0.021885515,0.020433235,0.01923426,0.018318142,0.017566672,0.016886971,0.016274819,0.015932857,0.015460022,0.015101174,0.014666335,0.013969747,0.01349269,0.013095846,0.01247525,0.011728002,0.011407149,0.01073167,0.010073078,0.009452482,0.008874103,0.008181738,0.007789116,0.007307837,0.006797006,0.006547923,0.006193297,0.005754235,0.005509374,0.005310952,0.005205409,0.004985878,0.004998543,0.004656582,0.004411721,0.004318843,0.00423863,0.003968438,0.003934664,0.003702468,0.003634921,0.00348716,0.003474494,0.003432277,0.003322512,0.002925668,0.002891894,0.002845455,0.002571041,0.002549933,0.002343067,0.002435946,0.002140424,0.001929336,0.001794241,0.001591597,0.001346736,0.001393175,0.001173645,0.001156758,0.001004775,0.000966779,0.000844349,0.000768357,0.000595266,0.000561492,0.000396844,0.000384179,0.000341961,0.000633261,0.000540383,0.000472835,0.000561492,0.000527718,0.00055727,0.000477057,0.00043484,0.000439061,0.000447505,0.000464392,0.00046017,0.000464392,0.000455948,0.000451726,0.000447505,0.000439061,0.000439061,0.000439061,0.00043484,0.00043484,0.000430618,0.00043484,0.000443283,0.000439061,0.000417953,0.000379957,0.000384179,0.000392622,0.0002913,0.000455948,0.000477057,0.000181535,0.000578379,0.00036307,0.000329296,0.000173091,0.000240639,0.000160426,0,0.000320852,0.000189978\nSRI-031201.txt,COC(=O)\\C=C(\\O\\N=C(/N)C1CCCCN1C(=O)OCC1=CC=CC=C1)C(=O)OC,0.036580753,0.008505029,0,0.005101893,0.017863684,0.03557436,0.057121572,0.080947771,0.106041309,0.133846172,0.163780279,0.195096924,0.227747192,0.262141079,0.298510684,0.336305814,0.375149257,0.415179442,0.456483357,0.498323374,0.53944488,0.579597272,0.618795842,0.656729752,0.693031283,0.727755165,0.760966562,0.791838162,0.819971981,0.84645858,0.87137719,0.893833384,0.913458141,0.930792968,0.946432773,0.960154654,0.972302272,0.982401145,0.989437802,0.993574512,0.996697911,0.998945438,0.999999991,0.99922319,0.995650715,0.989994528,0.984555537,0.978704309,0.970249344,0.959155705,0.947326315,0.934891521,0.921600003,0.907808032,0.893903524,0.879281935,0.86386596,0.848385008,0.833160404,0.817869516,0.803258592,0.788783468,0.77453203,0.761029499,0.748161964,0.735858051,0.723912717,0.712983331,0.702925997,0.692497414,0.683238944,0.674464981,0.665905627,0.657910439,0.650192879,0.643073926,0.636683541,0.630583916,0.62451392,0.618981314,0.614198039,0.609519366,0.604988181,0.601012952,0.597326062,0.594118732,0.590976367,0.587923662,0.58524589,0.582589147,0.580014698,0.577824936,0.575680196,0.57320339,0.570979611,0.568827507,0.566704715,0.564776791,0.563082605,0.561356836,0.559364161,0.557784457,0.556325595,0.554445917,0.553964925,0.553827088,0.550634249,0.546252538,0.545555997,0.544539271,0.545284904,0.54487276,0.541938089,0.540980651,0.540117244,0.539069986,0.538142502,0.537389171,0.536822645,0.536174006,0.535800653,0.535587662,0.535253871,0.535012245,0.534465195,0.533835515,0.533533533,0.533626057,0.533695561,0.533008634,0.532448394,0.532628726,0.532922176,0.532826764,0.532832815,0.532935387,0.533144677,0.533562124,0.533512081,0.53345829,0.534087902,0.534811179,0.534729367,0.535493485,0.536055734,0.536288718,0.537498508,0.539793433,0.540745099,0.540780489,0.54002932,0.538920784,0.539506857,0.539054766,0.538238797,0.539374131,0.541327455,0.539992116,0.541349295,0.544853141,0.545760148,0.543444269,0.542569735,0.543978187,0.544247676,0.542221333,0.541575051,0.544025243,0.549776679,0.550198048,0.542174146,0.538738846,0.543004326,0.549202766,0.550674447,0.546471332,0.542275111,0.542087879,0.548181221,0.554351445,0.551465667\nSRI-1052923-001.txt,Cn1nnc(n1)-c1ccc(OCC(=O)N[C@@H](Cc2c[nH]c3ccccc23)C(O)=O)cc1,1,0.994764064,0.983255636,0.96249794,0.931640469,0.890018764,0.83771256,0.77807073,0.715398968,0.653152459,0.595902681,0.547503495,0.508459891,0.479648953,0.460034127,0.448818061,0.44429974,0.445628658,0.451130377,0.4598215,0.470532577,0.483077561,0.496924884,0.510958256,0.525523195,0.539928664,0.554015192,0.567516997,0.579753672,0.591131866,0.600832966,0.608777236,0.615017834,0.619512234,0.622260436,0.622866423,0.621524216,0.618395943,0.612838409,0.605000452,0.595185065,0.582974969,0.568681129,0.552170654,0.534118635,0.515178899,0.495207922,0.474319993,0.452297167,0.429516859,0.406997018,0.385604099,0.365335445,0.346969802,0.329537058,0.31321529,0.298009813,0.284218304,0.272986291,0.264013438,0.256566183,0.249873753,0.242958065,0.234705485,0.224810363,0.212985653,0.200135018,0.187837213,0.178364687,0.171988539,0.167215067,0.1607645,0.149917873,0.134430665,0.115974655,0.097353859,0.080426104,0.065930269,0.053906221,0.043912759,0.035670811,0.02863552,0.023019514,0.018450694,0.014689857,0.011609426,0.009065877,0.007176156,0.005642585,0.004451875,0.003516316,0.002796043,0.002341553,0.001908326,0.001538887,0.001273103,0.001084397,0.000951505,0.000901006,0.000752167,0.000738878,0.000722931,0.000656485,0.000560803,0.000558145,0.000507647,0.000510304,0.000512962,0.000534225,0.000475753,0.00035615,0.000409307,0.000435885,0.000345519,0.000411965,0.00035615,0.000223258,0.000374755,0.000340203,0.000265784,0.000302993,0.000241863,0.000244521,0.000316282,0.00029502,0.00019668,0.000231232,0.000199338,0.000204653,0.000236547,0.000292362,0.000316282,0.00025781,0.000148839,0.000316282,0.000305651,0.000377413,0.000300335,0.000207311,0.000310967,0.000276415,0.000223258,0.000268441,0.000284388,0.000276415,0.00029502,0.000273757,0.000247179,0.000215285,0.000162128,0.000114287,7.97E-05,5.85E-05,5.32E-05,6.38E-05,7.18E-05,7.97E-05,9.04E-05,0.000100998,0.000108971,0.000119603,0.00012226,0.000124918,0.000119603,0.000108971,9.57E-05,7.97E-05,0,4.25E-05,0.000167444,0.000175417,0.000114287,3.46E-05,0.000199338,0.000244521,0.000175417,0.000140865,7.71E-05,9.04E-05,0.000172759,0.000172759\nSRI-1053093-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)CC1CCS(=O)(=O)C1,0.999105728,1,0.98877534,0.964013248,0.925004471,0.86922038,0.797894451,0.714387917,0.62335716,0.530414511,0.442590799,0.364049018,0.297101941,0.24211961,0.198331103,0.164564613,0.138877411,0.1196043,0.104895062,0.093608728,0.085005211,0.078621957,0.073657204,0.069833419,0.067150602,0.065244876,0.064008314,0.063635186,0.063764702,0.06453871,0.065821528,0.067656328,0.069873507,0.072547073,0.07540566,0.079078344,0.082862042,0.086960276,0.091265118,0.095850576,0.100497709,0.105493299,0.11052281,0.11556774,0.120797691,0.125780946,0.13068711,0.135688867,0.140363753,0.1449893,0.149287974,0.153090173,0.156762857,0.159778714,0.162069901,0.163627169,0.164752718,0.165939942,0.167565051,0.169412186,0.171410422,0.172640817,0.172992359,0.171780465,0.168696768,0.163297213,0.156790611,0.150980924,0.14727432,0.145670797,0.144767273,0.141026748,0.132454068,0.118996811,0.103371715,0.088005649,0.073984076,0.061979241,0.051951056,0.043094676,0.035740057,0.029288961,0.024000419,0.019353287,0.01542774,0.01232554,0.009874,0.007727746,0.005957704,0.004634798,0.003731274,0.003031275,0.002445372,0.001884139,0.001480175,0.00132599,0.001094713,0.000863435,0.000823347,0.000801761,0.000595154,0.000579735,0.000564317,0.000505726,0.000471806,0.000407048,0.000388546,0.000354625,0.000299119,0.000336123,0.000326872,0.000403964,0.000357709,0.000299119,0.0002837,0.000268282,0.000280616,0.000215859,0.000296035,0.000255947,0.000299119,0.000185022,0.000148017,0.000262114,0.000370044,0.000268282,0.00022511,9.56E-05,0.000169603,0.00022511,0.000185022,0.000144934,8.94E-05,6.17E-05,0.000135683,0.00024978,0.000222026,0.000175771,7.71E-05,3.7E-05,0.000129515,0.00016652,0.000104846,0.000188106,0.00020044,0.000120264,0.000101762,7.09E-05,4.32E-05,1.85E-05,1.23E-05,0,0,1.23E-05,2.78E-05,3.7E-05,4.93E-05,5.86E-05,6.78E-05,8.33E-05,8.94E-05,9.56E-05,0.000107929,0.000114097,0.000120264,0.000107929,3.39E-05,0.000111013,6.17E-05,8.63E-05,1.85E-05,7.09E-05,9.25E-05,0.000123348,0.000163436,9.87E-05,0.000114097,4.32E-05,5.24E-05,0.000160352,0.000117181\nSRI-1053083-001.txt,OC(=O)[C@H](Cc1ccc(O)cc1)NC(=O)Cn1nnc2ccccc2c1=O,0.970025161,0.981183678,0.990783284,0.997374467,1,0.997347117,0.988212449,0.972103709,0.949759326,0.921179302,0.887867848,0.850973635,0.809594136,0.762033694,0.708128214,0.648944317,0.586314408,0.52360245,0.46458265,0.410458374,0.364347446,0.325730226,0.293676841,0.267995843,0.247511213,0.23090745,0.217224592,0.205483536,0.195298654,0.186194071,0.178027568,0.170976917,0.16514331,0.16025052,0.156142654,0.152644678,0.149261569,0.146209386,0.143501805,0.141114211,0.139664698,0.139383,0.140318346,0.142708675,0.146515699,0.151613609,0.15789301,0.165055793,0.173033585,0.181377858,0.189935456,0.198657149,0.207518324,0.216188054,0.224688218,0.232999672,0.240701236,0.247817525,0.25373865,0.258806476,0.26260256,0.265501586,0.267571929,0.268613937,0.268605732,0.266737775,0.263155016,0.25807625,0.251999234,0.245312329,0.238603544,0.231859206,0.225566131,0.21969697,0.214169675,0.209066295,0.204485286,0.200626299,0.197057215,0.194242971,0.191606498,0.188915327,0.185671699,0.18149546,0.176118587,0.169975933,0.162955366,0.155743354,0.148668089,0.142303905,0.136987201,0.133182912,0.13070233,0.129214528,0.127994749,0.12597637,0.121997046,0.115827043,0.107310469,0.096723553,0.085351712,0.07362433,0.062383765,0.052053933,0.042987638,0.035316158,0.028774204,0.023599716,0.019218357,0.015734055,0.012886993,0.010608796,0.008765452,0.007315939,0.006087955,0.005004923,0.004146155,0.003519856,0.003120556,0.002565365,0.002294607,0.001892572,0.001572585,0.001471393,0.001288152,0.001167815,0.001020129,0.000809539,0.000667323,0.000596215,0.000522372,0.000527842,0.000432119,0.000445794,0.000396565,0.000287168,0.000402035,0.000339131,0.000248879,0.000254349,0.000196915,0.00018324,0.000202385,0.000319987,0.00019418,8.48E-05,9.3E-05,7.11E-05,5.2E-05,4.65E-05,6.02E-05,6.56E-05,7.38E-05,8.2E-05,8.2E-05,8.48E-05,9.03E-05,9.3E-05,9.57E-05,0.000103927,0.000109397,0.000117602,0.000128542,0.000134012,0.000128542,0.000117602,9.03E-05,0.000169566,0.000155891,0,2.46E-05,4.1E-05,9.85E-05,5.74E-05,0.000153156,0.000136747,0.000161361,0.000213325,0.000101192,0.000136747,0.000112132\nSRI-1053152-001.txt,CC(C)c1ccc(cc1)S(=O)(=O)NC(CC(O)=O)c1ccccc1,0.833021902,0.842799409,0.856922475,0.8753911,0.898205284,0.921019468,0.943833652,0.963388667,0.980770902,0.992721189,1,0.997284026,0.98837563,0.97153659,0.945354598,0.910046932,0.866591344,0.814661916,0.755779593,0.692008517,0.624869633,0.558056666,0.490917782,0.425299844,0.364570659,0.308404311,0.259190857,0.216821658,0.181622632,0.152616026,0.129258648,0.11111594,0.097058057,0.086606988,0.079262993,0.073765861,0.07013732,0.067638623,0.065943855,0.063206153,0.060653137,0.059436381,0.058773683,0.058610725,0.058132713,0.057665566,0.054797497,0.05171215,0.048605076,0.045834782,0.043575091,0.040229011,0.037165392,0.034883974,0.033580306,0.031972449,0.029767078,0.026453589,0.02319442,0.020413263,0.018446897,0.016480532,0.015252912,0.014720581,0.014199114,0.014438119,0.015079089,0.01482922,0.015003042,0.01541587,0.01561142,0.016230662,0.016437076,0.017034591,0.017371371,0.0177842,0.018577264,0.018283939,0.018077525,0.018164436,0.018903181,0.018468625,0.018577264,0.018707631,0.018512081,0.018251347,0.018066661,0.018240483,0.017664697,0.017241005,0.016730402,0.016230662,0.014937859,0.014840083,0.014655397,0.014275161,0.013655919,0.013036677,0.012591257,0.012352251,0.01201547,0.011254997,0.010722666,0.009636277,0.008875804,0.007811142,0.006235877,0.004660612,0.003693725,0.003215714,0.001694768,0.001499218,0.000141231,0.000847384,0.000347645,0.000771337,0.000869112,0.000564923,0.000575787,0.001042934,0.000934295,0.000945159,0.00058665,0.000564923,0.000717017,0.001140709,0.000380236,0.000488875,0.000630106,0.000793064,0.000554059,0.00064097,0.001053798,0.000597514,0.00044542,0.000966887,0.001075526,0.000239006,0.000434556,0.000412828,0.000803928,0.000684426,0.000575787,0.000401964,0.000488875,0.000575787,0.000619242,0.000510603,0.000369373,0.000369373,0.000336781,0.000347645,0.000325917,0.000293325,0.000271597,0.000228142,0.000206414,0.000228142,0.000239006,0.00024987,0.000239006,0.000239006,0.000239006,0.000228142,0.000228142,0.000336781,0.00044542,0.000673562,0.000575787,7.6E-05,0.000336781,0.000575787,0.000499739,0.000478011,0.000358509,0,0.000727881,0.00044542,0.00024987,0.000771337,0.000456284\nSRI-0000504.txt,FC(F)(F)C1=CC=C2C(C=O)=CC3=C(C=CN=C3)C2=C1,0.445846704,0.446480892,0.449017643,0.454091145,0.462969775,0.475019343,0.492142413,0.514338986,0.540340686,0.569513324,0.601856902,0.636103043,0.671617559,0.708971221,0.746641976,0.785073756,0.82230058,0.858068771,0.891870981,0.921487551,0.94647455,0.967085653,0.982496417,0.992580003,0.998477949,1,0.996829061,0.988774876,0.975964283,0.959855913,0.940957116,0.919902081,0.897045953,0.871418424,0.843311221,0.812438959,0.779835365,0.74827818,0.717976687,0.690047057,0.664482947,0.640612118,0.617033016,0.593675879,0.570369478,0.547202598,0.525430931,0.505434989,0.487804569,0.473034335,0.46052181,0.450565061,0.442047919,0.434691341,0.427645514,0.418906407,0.407903248,0.393393032,0.374868406,0.354149491,0.332174884,0.310694943,0.290762421,0.272669043,0.258006621,0.245963395,0.236843774,0.23041311,0.227121675,0.225910377,0.226100633,0.227971487,0.230895093,0.234579724,0.239659568,0.244878934,0.250732487,0.257048997,0.263409901,0.269808856,0.275795589,0.281014954,0.285612816,0.289202319,0.29180883,0.293185018,0.293660659,0.293793838,0.293546505,0.292354232,0.290641925,0.28853008,0.285904542,0.282074048,0.276721503,0.269643967,0.261285372,0.251480829,0.240452303,0.229182786,0.216720995,0.203510864,0.18934945,0.174674345,0.160563666,0.14652909,0.133934121,0.122188963,0.111566317,0.10238962,0.094278358,0.088906787,0.085317284,0.082983473,0.081391662,0.078829543,0.074910262,0.069145495,0.062670438,0.056690047,0.051927297,0.048172905,0.044862445,0.042642787,0.040385079,0.038660088,0.038063951,0.038615695,0.041609061,0.045598103,0.049231999,0.050944306,0.049263708,0.044298018,0.037696123,0.030548826,0.024828452,0.020541343,0.017402113,0.015252216,0.013654063,0.012404713,0.011459773,0.010223107,0.009405005,0.00861227,0.008085894,0.007724407,0.007318527,0.006519451,0.005580853,0.004724699,0.004090511,0.003690973,0.003430956,0.003234358,0.00303776,0.002834819,0.002638221,0.002435281,0.002213315,0.001946957,0.00165523,0.001325452,0.001002017,0.000780051,0.000665897,0.000615162,0.000367829,0.000361487,0.000285385,0.000323436,0.000139521,0.000221966,0.000475641,0.000279043,0.000577111,0.000545402,0,0.00010147,2.54E-05\nSRI-0000262.txt,CNC(C1=NC2=C(N1)C=CC=C2)C1=CC=CC=C1,1,0.935164185,0.872670348,0.810792821,0.751010748,0.692338034,0.635945666,0.581648753,0.531912533,0.486921901,0.448464155,0.417093975,0.393489301,0.376910561,0.366618184,0.360948131,0.359592249,0.36150281,0.365508826,0.371980081,0.379622325,0.388373928,0.39756311,0.4065674,0.414456168,0.420958239,0.425636032,0.428421753,0.429660536,0.430017996,0.429185978,0.426609802,0.422677744,0.415972291,0.407097426,0.396743418,0.385249236,0.374223449,0.364615176,0.35667094,0.351044029,0.348942412,0.34979292,0.353657184,0.360757075,0.372109506,0.386925599,0.403985061,0.420317276,0.434350656,0.446189971,0.458793511,0.475353762,0.496862982,0.521102455,0.542808895,0.55387166,0.546611527,0.521238044,0.487470417,0.462466719,0.459582388,0.47717804,0.492647421,0.477332117,0.419700966,0.334921359,0.246850656,0.173053693,0.117228331,0.078339168,0.052694507,0.036035647,0.02556454,0.018692683,0.014131989,0.011198353,0.009337097,0.008036683,0.006748595,0.006052164,0.005374223,0.004739424,0.004141603,0.003765654,0.003475989,0.002989104,0.002736417,0.002662459,0.002570013,0.002261858,0.001892072,0.002003008,0.001737994,0.001737994,0.001676363,0.001577754,0.001651711,0.001436002,0.001392861,0.001078543,0.001306577,0.001170989,0.000782714,0.000739572,0.000856671,0.000881323,0.000961444,0.000647126,0.000813529,0.000986096,0.000733409,0.000986096,0.001010748,0.000881323,0.00079504,0.000961444,0.00071492,0.000949117,0.000930628,0.000788877,0.000690267,0.000727246,0.000751898,0.000949117,0.001195641,0.000955281,0.000832019,0.000634799,0.000751898,0.000862834,0.000770388,0.001047727,0.00087516,0.000764224,0.000523864,0.000530027,0.000684104,0.000523864,0.000597821,0.000708757,0.000733409,0.000542353,0.000542353,0.000456069,0.000585495,0.000684104,0.000665615,0.000573168,0.00043758,0.000338971,0.000271176,0.000246524,0.000221872,0.000228035,0.000246524,0.000271176,0.000295829,0.000320481,0.000332807,0.00035746,0.000369786,0.000382112,0.000406765,0.000425254,0.000462233,0.000449906,0.00027734,0.000221872,0.000314318,0.000406765,0.000314318,0.000129425,0.000369786,1.85E-05,0.000203382,0.000345134,0.000283503,0,0.00043758,0.000425254\nSRI-1053234-001.txt,Cn1c2ccc(cc2oc1=O)S(=O)(=O)N1CCCC1C(O)=O,1,0.973328592,0.966216216,0.94487909,0.898648649,0.859530583,0.791963016,0.719061166,0.642603129,0.567923186,0.511024182,0.454125178,0.48257468,0.496799431,0.502133713,0.523470839,0.541251778,0.553698435,0.573257468,0.576813656,0.591038407,0.599928876,0.605263158,0.608819346,0.605263158,0.587482219,0.57859175,0.562588905,0.535917496,0.514758179,0.486130868,0.448613087,0.424786629,0.394203414,0.363798009,0.329836415,0.313300142,0.310455192,0.314722617,0.309921764,0.311877667,0.300497866,0.293385491,0.298719772,0.292674253,0.292674253,0.281827881,0.275248933,0.268669986,0.272759602,0.261201991,0.258357041,0.246799431,0.243776671,0.235775249,0.226351351,0.212660028,0.202880512,0.198435277,0.196479374,0.192567568,0.196123755,0.197368421,0.192211949,0.181009957,0.170163585,0.16874111,0.170519203,0.163584637,0.155938834,0.156827881,0.156472262,0.137980085,0.131578947,0.116465149,0.103485064,0.095305832,0.083748222,0.079480797,0.072901849,0.06987909,0.06098862,0.060810811,0.062411095,0.054231863,0.053342817,0.040184922,0.036984353,0.042140825,0.037339972,0.0378734,0.029694168,0.024537696,0.028627312,0.027204836,0.029338549,0.024359886,0.021692745,0.008534851,0.015469417,0.009957326,0.018136558,0.020981508,0.022048364,0.018669986,0.010490754,0.018492176,0.018669986,0.02027027,0.016358464,0.023826458,0.017603129,0.029516358,0.019559033,0.02027027,0.018314367,0.012268848,0.009779516,0.016358464,0.018492176,0.016002845,0.019203414,0.013691323,0.018669986,0.036095306,0.025782361,0.019381223,0.032183499,0.032183499,0.022759602,0.025604552,0.022759602,0.020092461,0.024715505,0.022048364,0.019381223,0.021337127,0.016358464,0.01742532,0.015825036,0.017958748,0.01440256,0.006401138,0.014224751,0.014046942,0.016002845,0.015469417,0.011913229,0.007467994,0.003733997,0.002667141,0.002311522,0.002667141,0.00302276,0.003378378,0.005156472,0.006934566,0.008534851,0.009957326,0.011379801,0.012268848,0.013513514,0.014224751,0.014224751,0.013513514,0.012802276,0.016358464,0.027382646,0.01440256,0.015469417,0.016358464,0.006401138,0.007645804,0.008179232,0.017069701,0.010490754,0.014758179,0.012091038,0,0.003556188,0.010312945\nSRI-1053224-001.txt,NC(=O)[C@@H]1CCCN1C(=O)CCCn1nnc2ccccc2c1=O,1,0.993751502,0.988223985,0.982696467,0.977409277,0.96803653,0.953616919,0.935712569,0.913362173,0.885604422,0.857125691,0.826123528,0.791396299,0.753544821,0.710165826,0.660418169,0.605022831,0.548065369,0.492429704,0.44099976,0.396298967,0.359528959,0.328803172,0.304530161,0.286217255,0.271184811,0.258880077,0.248233598,0.238692622,0.230064888,0.221521269,0.213686614,0.206909397,0.200829128,0.195325643,0.190098534,0.185556357,0.181026196,0.17578707,0.170848354,0.165921653,0.162557078,0.159637106,0.1580149,0.158483538,0.160466234,0.163590483,0.167784186,0.172795001,0.178202355,0.184210526,0.190567171,0.197728911,0.204482096,0.211607787,0.218589281,0.225979332,0.233321317,0.23961788,0.245614035,0.251718337,0.256657054,0.260814708,0.263950973,0.26629416,0.267928383,0.268685412,0.268997837,0.267736121,0.266270127,0.264383562,0.261824081,0.258988224,0.255972122,0.252679644,0.248053353,0.244400385,0.241420332,0.238728671,0.236277337,0.234186494,0.231699111,0.229019466,0.224525354,0.21951454,0.213085797,0.204902668,0.196563326,0.188392213,0.180004807,0.172590723,0.16629416,0.162148522,0.159480894,0.156861331,0.154962749,0.151093487,0.145409757,0.136265321,0.125030041,0.111163182,0.097416486,0.083381399,0.070331651,0.057990868,0.047212209,0.039269406,0.031627013,0.025522711,0.021076664,0.017748137,0.014708003,0.012184571,0.010189858,0.007990868,0.00604422,0.005130978,0.004602259,0.004662341,0.003196347,0.002847873,0.00272771,0.002871906,0.002078827,0.002859889,0.002751742,0.001706321,0.00161019,0.002018745,0.001453977,0.001670272,0.001802451,0.001850517,0.001273732,0.001273732,0.001273732,0.001141553,0.000877193,0.001129536,0.000600817,0.000372507,0.000732997,0.000805095,0.000913242,0.000817111,0.000793079,0.000817111,0.000672915,0.000504686,0.000408556,0.000336458,0.000336458,0.000312425,0.000276376,0.000252343,0.00026436,0.00026436,0.000276376,0.000324441,0.000384523,0.000444605,0.000516703,0.000552752,0.000552752,0.000516703,0.000648882,0.000901226,0.000745013,0.000336458,0.000324441,0,0.000468637,0.000312425,0.000288392,0.000937275,0.000889209,0.000865177,0.000528719,0.000504686,0.000865177,0.000745013\nSRI-1052816-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)CCn1ccc2c(Br)cccc12,0.961751566,0.979016484,0.991234734,1,0.998539122,0.992695612,0.980742976,0.965602971,0.943291384,0.916729971,0.88737961,0.85334116,0.814030269,0.768756342,0.71438513,0.649362792,0.577182153,0.504005461,0.434441121,0.371092152,0.316561572,0.270929065,0.233264982,0.202652954,0.178468788,0.159397693,0.144908443,0.134004983,0.126023278,0.120538347,0.117258012,0.115740028,0.115736043,0.117077395,0.11957948,0.12300059,0.127363302,0.132583947,0.138392928,0.145035938,0.152091977,0.159636746,0.167745945,0.176308017,0.185154295,0.194221033,0.203506903,0.2129123,0.222261917,0.231537162,0.240560074,0.249440882,0.258057405,0.266170588,0.273609112,0.280066191,0.285920326,0.291121051,0.296372242,0.301575623,0.306399176,0.310048714,0.3122055,0.312590641,0.311340926,0.308752517,0.305283596,0.301940842,0.299884989,0.298718943,0.297065495,0.291689465,0.280463284,0.264094814,0.246066255,0.22958357,0.215893818,0.204340932,0.192649926,0.178613547,0.161445578,0.142478074,0.123604862,0.105891056,0.090073734,0.076269768,0.064356975,0.054122862,0.045240726,0.037772985,0.031434104,0.026097916,0.021719267,0.018110899,0.015190472,0.012871661,0.011097358,0.009725461,0.008584649,0.007770541,0.007079945,0.006528795,0.006110453,0.005794372,0.00542384,0.005166195,0.004931126,0.004636295,0.00446763,0.004289668,0.004126315,0.003871326,0.003703989,0.003560557,0.003369315,0.003271038,0.00315948,0.002843399,0.002597706,0.002410448,0.002221862,0.002081087,0.001812816,0.001553843,0.001382522,0.001253699,0.001004021,0.0008327,0.000721142,0.000600288,0.000464825,0.000377172,0.000389125,0.000336002,0.000241709,0.000197883,0.000147416,0.000154056,0.000200539,0.000120854,0.000180618,0.000119526,9.3E-05,0.000114214,0.000126167,0.000124839,0.000132807,0.00014476,0.00014476,0.000120854,9.16E-05,7.3E-05,5.84E-05,4.91E-05,4.52E-05,4.38E-05,4.25E-05,4.25E-05,4.25E-05,4.25E-05,4.12E-05,3.85E-05,3.32E-05,3.45E-05,4.78E-05,6.37E-05,6.37E-05,0.000104918,2.39E-05,6.77E-05,2.66E-05,0.000104918,7.57E-05,3.72E-05,2.92E-05,3.98E-05,1.73E-05,0,2.92E-05,2.92E-05,6.91E-05\nSRI-002379.txt,C(C1=CNC2=C1C=CC=C2)C1=CC=CC=N1,1,0.932809165,0.849882228,0.781373601,0.711169352,0.619134901,0.532661904,0.453259832,0.382199479,0.319888163,0.267250182,0.225095563,0.193885074,0.172928485,0.160653662,0.155077464,0.154277573,0.156863396,0.161885752,0.166803054,0.172651104,0.18161025,0.191820839,0.203231264,0.216020303,0.230343695,0.246271476,0.263950171,0.283431384,0.304699451,0.327590338,0.351657101,0.376537578,0.395315662,0.413761072,0.437635235,0.460017435,0.480363969,0.498178129,0.513180691,0.525025158,0.533605554,0.538877646,0.540936352,0.539815767,0.535714022,0.528582276,0.521307693,0.512124613,0.497404041,0.479872792,0.460233996,0.439372325,0.418140198,0.397613044,0.378441466,0.361320299,0.346405283,0.333496445,0.32192383,0.313734163,0.305855975,0.295780852,0.286363703,0.277712349,0.269026898,0.25952036,0.248543977,0.236024948,0.221947605,0.206465846,0.189505948,0.171244844,0.16178254,0.142968517,0.125130397,0.109209066,0.095609078,0.084356235,0.075207253,0.06782485,0.06186898,0.057116633,0.053319916,0.050300051,0.049052295,0.046928161,0.045269401,0.043938707,0.042862356,0.041992429,0.041298514,0.040671871,0.040126324,0.039646205,0.03924073,0.038892391,0.038616852,0.038195712,0.037771806,0.037385684,0.036979288,0.036522207,0.036075263,0.035596988,0.03506342,0.034540911,0.03415018,0.033754843,0.033110691,0.032475754,0.031907168,0.031244586,0.030485243,0.029743408,0.029010789,0.028267112,0.027558453,0.027002768,0.026363224,0.02560941,0.024850067,0.024051097,0.023227246,0.022452237,0.021632072,0.020845083,0.02009219,0.019279398,0.018699753,0.018082326,0.017295337,0.016552581,0.015861431,0.015116832,0.014360253,0.013685691,0.013048911,0.012316292,0.011765215,0.011428856,0.010777332,0.010227176,0.00964661,0.009081711,0.008596984,0.00805973,0.007539064,0.007137275,0.00664149,0.006336463,0.00601024,0.005590021,0.005237074,0.004854637,0.004470358,0.004187447,0.003826206,0.0035221,0.003238268,0.003033688,0.002843852,0.002611625,0.002329636,0.002155466,0.001920475,0.001747227,0.001564764,0.001356497,0.001222875,0.001056077,0.000964845,0.000834909,0.00069115,0.000553842,0.000473668,0.000391652,0.000254343,0.000202737,0.000103212,0\nSRI-1052806-001.txt,Cc1c(OCC(=O)N[C@@H](Cc2c[nH]c3ccccc23)C(O)=O)ccc2c3CCCc3c(=O)oc12,1,0.998898099,0.985675292,0.966155909,0.93341372,0.886346822,0.824325558,0.752686276,0.674955058,0.596468251,0.523443723,0.459486262,0.40437549,0.358678097,0.321843133,0.292422387,0.269250991,0.250912216,0.236367128,0.224970327,0.215887518,0.209024251,0.203845318,0.200020149,0.197312622,0.194951406,0.192590191,0.189819698,0.186750117,0.183617571,0.18119339,0.179861664,0.180193809,0.182107967,0.185018559,0.188102307,0.190378519,0.190888541,0.189197911,0.185810353,0.182318903,0.179993892,0.179820737,0.182090652,0.186482513,0.192631118,0.200095708,0.208444966,0.21743805,0.226760129,0.23596887,0.245377527,0.254800351,0.26371945,0.272435484,0.280403799,0.288084047,0.295775313,0.303794001,0.312140111,0.320621598,0.32868751,0.335974222,0.341762348,0.34574021,0.347676406,0.348040034,0.348444589,0.350571257,0.355174053,0.360927548,0.365083288,0.364814109,0.360118439,0.352652275,0.344641457,0.337935605,0.332811767,0.329479305,0.327925625,0.327791823,0.328889001,0.331286422,0.335100572,0.339862357,0.345743358,0.352003728,0.358575778,0.365651554,0.372426669,0.379129373,0.38555975,0.391810675,0.397982892,0.403807224,0.409282096,0.414278428,0.418637232,0.421935063,0.42428526,0.424907047,0.423959412,0.420776494,0.41574553,0.408847632,0.4000828,0.390326257,0.379625228,0.368664465,0.357177938,0.34563789,0.334223774,0.32254835,0.310646249,0.298141251,0.285023911,0.270631515,0.254927857,0.237716169,0.21897284,0.199113442,0.178477992,0.157837819,0.137717114,0.118536172,0.100713717,0.084477998,0.070087176,0.05778052,0.047247924,0.038528742,0.031264069,0.025195745,0.020177375,0.016136548,0.012887515,0.010327957,0.008330369,0.006622423,0.005265511,0.004280097,0.003504044,0.002792531,0.002285657,0.001874805,0.001610349,0.001474973,0.001427748,0.001342745,0.001144403,0.000905133,0.000697346,0.000563543,0.00048641,0.000442334,0.000409277,0.000380943,0.000358905,0.000336867,0.000316403,0.000292791,0.000269179,0.000240844,0.000210935,0.000184175,0.000165285,0.000143247,0.000199916,0.000195194,0.000114912,0.000124357,9.76E-05,0.000133802,0.00012908,8.66E-05,4.57E-05,2.36E-05,5.35E-05,0,4.09E-05,5.51E-05\nSRI-1053077-001.txt,COc1ccc(cc1)S(=O)(=O)NC(Cc1ccc(Cl)cc1)C(O)=O,0.93112634,0.955602104,0.975524237,0.990323535,0.997723185,1,0.993169554,0.978370256,0.955488263,0.92657271,0.896860272,0.874775164,0.859918945,0.855194554,0.859577423,0.871644544,0.890485189,0.912342615,0.93550921,0.957252795,0.974784272,0.987932879,0.994421803,0.992884953,0.982923886,0.963286355,0.935338449,0.898852485,0.8530885,0.799924865,0.740067394,0.675644908,0.608905763,0.542861046,0.480368161,0.422838733,0.37104688,0.326455454,0.28868309,0.257638715,0.232422987,0.21226748,0.196267161,0.18285672,0.171421416,0.161198516,0.152318936,0.14475991,0.13844744,0.133307529,0.128480681,0.1235343,0.117477972,0.110459689,0.102536372,0.094465062,0.086837731,0.079728376,0.073284989,0.067877553,0.06323285,0.058827212,0.053505157,0.046691788,0.039223834,0.031767264,0.025363721,0.020320576,0.016358917,0.013507206,0.011873591,0.010331049,0.008856811,0.007809476,0.006995515,0.006505999,0.005868491,0.005555429,0.005737574,0.005293595,0.004815464,0.004843924,0.004684547,0.004399945,0.0042178,0.004138112,0.003785205,0.003830742,0.003511987,0.003398147,0.003198925,0.00298832,0.003011088,0.003073701,0.003039548,0.002976936,0.002857403,0.002504497,0.002305275,0.002305275,0.00212313,0.001440086,0.001303477,0.000899342,0.00117256,0.00083673,0.000859498,0.000426903,0.000546436,0.000489515,0.000421211,0.000438287,0.00055782,0.000358598,0.00052936,0.000552128,0.00058628,0.000261834,0.000421211,0.000176453,0.000284602,0.000631816,0.000227682,0.000341522,0.000318754,0.000415519,0.000472439,0.000347214,0.00025045,0.00055782,0.000415519,0.000398443,0.00036429,0.00027891,0.000506591,0.000466747,0.000432595,0.000295986,0.000216297,0.000290294,0.000170761,0.000432595,0.000318754,0.000341522,0.00025045,0.000153685,0.000159377,0.000142301,0.000130917,0.000136609,0.000170761,0.000193529,0.000187837,0.000170761,0.000147993,0.000125225,0.000113841,0.000102457,8.54E-05,8.54E-05,9.68E-05,0.000102457,0.000125225,0.000136609,0.000136609,9.68E-05,3.42E-05,0.000187837,0.000102457,0,7.97E-05,0.000313062,0.00025045,0.000375675,0.000125225,0.000119533,0.000170761,0.000165069,5.69E-06,0.000187837,0.000375675\nSRI-1053067-001.txt,CC1CCCN(C1)C(=O)CNS(=O)(=O)c1ccc(cc1)-c1ccccc1,0.559802768,0.507403721,0.459905305,0.416553575,0.377348533,0.342667149,0.313640339,0.288383244,0.268780723,0.254078832,0.244277572,0.239376941,0.23899997,0.242053439,0.248688139,0.258904068,0.271834193,0.28751621,0.305987816,0.327399801,0.350847432,0.376707681,0.404113514,0.433102627,0.464014295,0.495868392,0.528664918,0.562554661,0.596859073,0.631540457,0.666108749,0.700488555,0.733986248,0.766873247,0.79837676,0.828319612,0.856464308,0.883014415,0.9069408,0.928333936,0.947559486,0.963904973,0.97720453,0.98766926,0.99509937,0.999540095,1,0.997093549,0.991062004,0.981588709,0.969469073,0.954552309,0.937381254,0.917959679,0.89700383,0.875105552,0.851115082,0.825190748,0.797147833,0.767155976,0.734864592,0.700956,0.66503815,0.626979101,0.588324437,0.548180735,0.507169999,0.466758648,0.427617691,0.388759462,0.351254561,0.315050213,0.280440454,0.247926656,0.217158238,0.188029645,0.16092162,0.136199825,0.11412814,0.094348442,0.076853192,0.061755481,0.049243795,0.038492566,0.029931542,0.022818089,0.017306764,0.013273169,0.010087759,0.007780693,0.006144636,0.004960946,0.004176845,0.003505836,0.003091167,0.002638801,0.002450315,0.002171356,0.001915016,0.001620978,0.001485268,0.001383486,0.00119123,0.001032902,0.000980126,0.000772792,0.000731325,0.000806719,0.000753943,0.000614464,0.000693628,0.000584306,0.000640852,0.000599385,0.000584306,0.000591845,0.000584306,0.000361893,0.000618233,0.000407129,0.000441057,0.000516451,0.000471214,0.00040336,0.000312886,0.000407129,0.000376972,0.000294038,0.000294038,0.000331735,0.000256341,0.00026011,0.000113091,0.000256341,0.000339274,0.00039205,0.000425978,0.000222413,0.000184716,0.000162098,0.000320426,0.000237492,0.000188486,0.000214874,5.65E-05,0.000150789,0.000184716,0.000169637,0.000143249,0.000113091,7.54E-05,6.03E-05,5.28E-05,4.15E-05,3.02E-05,2.26E-05,2.26E-05,2.26E-05,2.26E-05,2.26E-05,2.26E-05,2.64E-05,3.39E-05,4.9E-05,6.03E-05,1.51E-05,3.77E-06,0.000180946,0.000150789,0.000199795,0,0,0.000252571,8.29E-05,0.00013571,9.8E-05,0.000158328,0.000150789,6.03E-05,7.16E-05,0.000158328\nSRI-031200.txt,COC(=O)\\C=C(\\O\\N=C(/N)C1=CC2=C(OCO2)C=C1)C(=O)OC,0.999999995,0.928179068,0.858744619,0.795450032,0.740855087,0.693763951,0.653522646,0.619909762,0.591780179,0.567527302,0.546919585,0.530552547,0.518432166,0.509711415,0.50365278,0.500055287,0.498194699,0.497822265,0.499069007,0.501551775,0.505254796,0.50974548,0.514726164,0.520247604,0.526244099,0.532272813,0.538628547,0.545255103,0.551566234,0.557345554,0.563091147,0.568536616,0.573835832,0.579156828,0.583875387,0.587799739,0.591050517,0.593797425,0.59614014,0.598246919,0.60044689,0.601992775,0.603248641,0.604728914,0.605873807,0.607133346,0.608869121,0.610912176,0.612995202,0.615165108,0.617494593,0.619947588,0.62258662,0.625578103,0.629081664,0.633049303,0.636425799,0.639131889,0.642076259,0.645873703,0.650207043,0.653998735,0.657257131,0.660687025,0.664455194,0.668345845,0.671837445,0.67508361,0.678229926,0.68072624,0.682548987,0.683871311,0.684170528,0.682937139,0.680247035,0.675446237,0.66863765,0.659954772,0.64915401,0.635912172,0.620094223,0.601418312,0.580451105,0.55775606,0.533016348,0.507213148,0.480533806,0.45351988,0.426694972,0.399598955,0.373052565,0.34744003,0.322512481,0.298337876,0.275746824,0.254491917,0.234386386,0.21571463,0.198669703,0.18282099,0.168261941,0.155020938,0.142818838,0.131600346,0.121991005,0.113570564,0.104884252,0.09599452,0.088468942,0.082066699,0.077008482,0.071655133,0.065685037,0.061068557,0.05679915,0.052764364,0.049055897,0.045605859,0.042435992,0.039501905,0.036657982,0.034162382,0.032054887,0.029739521,0.027498616,0.025442646,0.023615863,0.02204796,0.020513533,0.018665973,0.017076157,0.01602018,0.015007846,0.013778877,0.012663092,0.011745432,0.010913918,0.010116596,0.009339576,0.008580029,0.008013425,0.007569864,0.006965657,0.006521119,0.006258673,0.005982834,0.00593819,0.006530364,0.006600471,0.005979069,0.005144645,0.004548679,0.004277943,0.00379097,0.003258805,0.003363293,0.003863289,0.003409374,0.004078321,0.005390572,0.005074149,0.003337433,0.003977967,0.004201095,0.003564783,0.002956676,0.002092227,0.003654985,0.006791745,0.006050124,0.000964062,2.07E-10,0.00300436,0.005314396,0.005086687,0.003473845,0.001089837,0.001164296,0.005011129,0.007702637,0.004433207\nSRI-1053311-001.txt,CCC(NS(=O)(=O)c1ccc(NC(C)=O)cc1)C(O)=O,0.177467281,0.160139113,0.149461546,0.144153269,0.142871961,0.144885445,0.149400531,0.15525794,0.163067818,0.172708136,0.183690778,0.195954727,0.210110131,0.224997712,0.241715733,0.260203179,0.279727875,0.300594893,0.323536411,0.348308368,0.374727722,0.402855487,0.432935721,0.46461454,0.497385521,0.532615394,0.56872998,0.605771988,0.64369871,0.681106806,0.718984716,0.755984014,0.791805729,0.825888526,0.858183593,0.888538393,0.915573996,0.939748009,0.960120809,0.976344611,0.988443821,0.996638091,1,0.998590561,0.990951524,0.976436133,0.955855883,0.930546997,0.900118979,0.86740291,0.833094359,0.796723512,0.759644895,0.722596785,0.686250343,0.650587266,0.615210958,0.579267214,0.54066323,0.498398365,0.4532231,0.405576741,0.356649074,0.308105799,0.261862778,0.218517954,0.179108576,0.143713963,0.11338967,0.087726898,0.066689039,0.051209616,0.039226334,0.030086336,0.023814027,0.019115897,0.015839409,0.013350011,0.011861253,0.010531133,0.009182708,0.008407822,0.007779371,0.007224137,0.006595686,0.006174685,0.005625553,0.005491321,0.004917783,0.004569999,0.004386955,0.004069679,0.003886635,0.004216114,0.00382562,0.003593764,0.003441228,0.003331401,0.003081241,0.002934806,0.002257543,0.001976875,0.001659599,0.00141554,0.001140974,0.001037249,0.0008298,0.000658958,0.000549132,0.000658958,0.000646756,0.00075048,0.000201348,0.000427103,0.000610147,0.00062235,0.000427103,0.000652857,0.000390494,0.000451509,0.00050032,0.000274566,0.000353885,0.000384392,0.00050032,0.000530828,0.000494219,0.000640654,0.0004149,0.000244059,0.000335581,0.000536929,0.000555234,0.00045761,0.000518625,0.000366088,0.000262363,0.000231856,0.000244059,0.000189145,0.000359987,0.00062235,0.000353885,0.000189145,0.000189145,0.000268465,0.000268465,0.000274566,0.000213551,0.000170841,0.000128131,0.000109826,9.76E-05,7.93E-05,4.88E-05,3.05E-05,3.66E-05,3.66E-05,3.66E-05,3.66E-05,3.66E-05,3.66E-05,3.66E-05,1.22E-05,2.44E-05,0,7.32E-05,0.000341682,0.000329479,7.93E-05,8.54E-05,0.000244059,0.000146435,0.000244059,0.000109826,0.000329479,0.00029287,0.000176943,6.71E-05,0.00037219,0.000347784\nSRI-1053269-001.txt,Cc1ccc(cc1)S(=O)(=O)NCC1CCC(CC1)C(O)=O,0.681712101,0.72640151,0.773077114,0.817766523,0.860469735,0.900193654,0.932965887,0.961765728,0.982720095,0.995630369,1,0.995630369,0.981925617,0.960276081,0.928596256,0.889766125,0.84328914,0.790158399,0.733253885,0.670986643,0.60901733,0.54535975,0.482198719,0.421222504,0.36421868,0.311286558,0.264114405,0.22240429,0.187149312,0.157257063,0.132628234,0.112964894,0.097293808,0.084919807,0.075346343,0.069000447,0.06416406,0.061343662,0.059148915,0.056705894,0.054173494,0.051988679,0.0511942,0.052157505,0.053706738,0.053647152,0.05250509,0.04987338,0.046983465,0.04409355,0.042415214,0.040359501,0.037896619,0.035672079,0.033437609,0.03182879,0.030448384,0.027856398,0.023983316,0.019196584,0.015601569,0.013188341,0.011599384,0.010109737,0.009037192,0.008759124,0.008143403,0.007368787,0.006822583,0.007080789,0.006971548,0.006733204,0.005948657,0.005462039,0.004409355,0.003386464,0.003207706,0.002492676,0.00192661,0.001668405,0.001598888,0.001171856,0.001151994,0.00132082,0.001439992,0.001340682,0.001062615,0.000854064,0.001221511,0.000943443,0.000883857,0.001142063,0.00101296,0.001231441,0.001191718,0.00081434,0.000685238,0.000685238,0.000367446,0.000526342,0.000168827,0.000734892,0.000724962,0.000575997,0.000556135,0.000476687,0.000456825,0.000794478,0.00081434,0.000695169,0.00081434,0.000774616,0.000873926,0.000317791,0.00101296,0.000794478,0.000635583,0.000317791,0.000893788,0.000347584,0.000585928,0.000734892,0.000784547,0.00101296,0.000953374,0.00091365,0.000784547,0.000854064,0.001052684,0.001221511,0.001142063,0.001052684,0.001271165,0.000973236,0.000873926,0.001142063,0.001241372,0.000546204,0.0007051,0.000873926,0.000635583,0.000993098,0.000109241,0.000824271,0.000675307,0.000625652,0.000516411,0.000377377,0.000248274,0.000109241,0,2.98E-05,3.97E-05,2.98E-05,3.97E-05,9.93E-05,0.000148965,0.00019862,0.000228413,0.000278067,0.00030786,0.000317791,0.000327722,0.000287998,0.000258205,0.000297929,0.000436963,0.000566066,0.000526342,0.000595859,0.000148965,0.000178758,0.000168827,0.000129103,0.000526342,0.00030786,0.000744823,0.000476687,0.000188689,0.000109241,0.00050648\nSRI-1052773-001.txt,CC(=O)Nc1ccc(cc1)S(=O)(=O)[C@H]1CS(=O)(=O)C[C@@H]1NCCc1c[nH]c2ccccc12,1,0.97063861,0.934140772,0.890608433,0.836677269,0.774590164,0.702715929,0.625030585,0.54469456,0.465785825,0.394115488,0.333659571,0.283908327,0.246289047,0.218354947,0.200106027,0.188891608,0.183386347,0.182366854,0.185119485,0.190420847,0.197863143,0.207752222,0.219578338,0.232831743,0.247614387,0.264232118,0.282440258,0.301545551,0.32262866,0.344843406,0.367914526,0.392239622,0.417594405,0.4427249,0.46863021,0.495361308,0.521511296,0.547396216,0.572598075,0.597361553,0.620279749,0.641974553,0.661446864,0.679033113,0.693825952,0.706304543,0.716173232,0.72274896,0.726867711,0.728763967,0.727540576,0.724349564,0.719343854,0.713532746,0.705601093,0.696731506,0.685364163,0.672559334,0.657746106,0.639925373,0.619382595,0.595047304,0.567317103,0.53488704,0.498032379,0.457640078,0.416421988,0.376559824,0.338542941,0.302758747,0.267331376,0.231965174,0.196660142,0.164036375,0.135592529,0.110798467,0.090235299,0.074270043,0.060557866,0.049995922,0.041789006,0.034142811,0.028270533,0.023805155,0.020114591,0.016862409,0.01396705,0.012162548,0.010776038,0.008828807,0.008074382,0.00693255,0.006402414,0.005749939,0.005403311,0.004761031,0.004465378,0.00413914,0.003466275,0.003231792,0.003394911,0.00285458,0.002681266,0.002416198,0.002304054,0.002579317,0.002426393,0.001947231,0.001794307,0.002100155,0.002100155,0.002018596,0.001651578,0.001845282,0.001661773,0.001478264,0.001763722,0.001906451,0.00136612,0.001141832,0.001498654,0.001294756,0.001172417,0.001080662,0.001243781,0.000988908,0.0014069,0.000591306,0.000815594,0.001060272,0.001009298,0.000886959,0.000591306,0.00064228,0.000652475,0.000815594,0.000611696,0.000948128,0.001080662,0.000897154,0.000846179,0.000550526,0.000254873,0.000601501,0.000632085,0.00068306,0.000795204,0.000774814,0.000672865,0.000581111,0.000540331,0.000509746,0.000499551,0.000499551,0.000489356,0.000479162,0.000479162,0.000489356,0.000499551,0.000479162,0.000479162,0.000458772,0.000428187,0.000336433,0.000265068,0,0.000397602,0.000581111,6.12E-05,0.000326238,0.000346628,0.000142729,2.04E-05,0.000397602,0.000316043,0.000407797,0.000224288,2.04E-05,0.000560721,0.000254873\nSRI-1053363-001.txt,CCCCC(NS(=O)(=O)c1ccccc1)C(O)=O,0.992483242,1,0.99868263,0.9858189,0.962803673,0.931031811,0.888333527,0.838505948,0.783563873,0.723584796,0.662365841,0.601534348,0.54085784,0.481731179,0.426246658,0.374404278,0.327443915,0.285288078,0.247936766,0.215080011,0.186872796,0.162850169,0.142469681,0.125421365,0.11108528,0.099151459,0.089387423,0.081405711,0.074772366,0.069192917,0.065054826,0.061784649,0.060335542,0.059258398,0.058351738,0.057793793,0.057383083,0.057941028,0.060668759,0.064109419,0.066798404,0.067387345,0.066031229,0.066007982,0.068774459,0.074384904,0.079623387,0.079452904,0.072997791,0.064062924,0.057266845,0.055600759,0.059382386,0.063760704,0.062629315,0.053826185,0.040381262,0.02754078,0.018071215,0.01184858,0.008237437,0.006005657,0.004246581,0.003076446,0.002588244,0.002162036,0.001611841,0.001526599,0.001681584,0.00151885,0.001456856,0.001193382,0.001410361,0.001170134,0.000976404,0.000844667,0.001007401,0.00090666,0.000891162,0.000953156,0.000534697,0.000511449,0.000511449,0.000278972,0.000573443,0.000480453,0.000666434,0.000751676,0.000650936,0.000650936,0.000627688,0.000488202,0.000588942,0.000263474,0.000550196,0.000449456,0.000263474,0.000449456,0.000387462,0.00020148,0.000774923,0.000433957,0.000348716,9.3E-05,0.000309969,0.000255725,0.000317719,0.000557945,0.00030222,0.000162734,0.0005037,0.000426208,0.000387462,0.000395211,0.000418459,0.000666434,0.000519199,0.000511449,0.000619939,0.000526948,0.000379713,0.000333217,0.000433957,0.000565694,0.000511449,0.000410709,0.000891162,0.001038397,0.000666434,0,0.000356465,0.000511449,0.000635437,0.00020148,0.000557945,0.00060444,0.000588942,0.000294471,0.000371963,0.000410709,0.000116239,0.000480453,0.000472703,0.000464954,0.000286722,0.00020148,0.000162734,0.000216979,0.000240226,0.000263474,0.000294471,0.00030222,0.000294471,0.00030222,0.00030222,0.00030222,0.000286722,0.000271223,0.000263474,0.000255725,0.000247976,0.000232477,0.000240226,0.000247976,0.000309969,0.000379713,0.000457205,0.000410709,0.000317719,0.00030222,0.000627688,0.000395211,0.000193731,0.000116239,0.000387462,0.000418459,0.000116239,0.000255725,0.000216979,0.000263474,0.000209229\nSRI-0000667.txt,CC1=CC=C(C=C1)S(=O)(=O)OC1CC11OC2OC(C)(C)OC2C1O,0.803504176,0.852628132,0.898477157,0.934501392,0.963975766,0.986900278,1,0.99672507,0.990175209,0.963975766,0.927951531,0.878827575,0.823153758,0.75765515,0.688226625,0.613885705,0.532339938,0.452431636,0.372850827,0.300147372,0.237596201,0.186179794,0.146553136,0.115441297,0.095136728,0.081382021,0.070902243,0.065989848,0.063697396,0.062059931,0.061732438,0.06304241,0.063631898,0.06543311,0.069363026,0.071327984,0.073260193,0.076666121,0.079384313,0.08046504,0.082462748,0.082691993,0.085410185,0.08848862,0.090781071,0.091894547,0.091927297,0.090453578,0.091436057,0.089602096,0.084493205,0.078762076,0.075978385,0.075126904,0.07578189,0.07388243,0.06916653,0.0611757,0.054200098,0.050073686,0.046143769,0.043229081,0.042672343,0.04093663,0.04142787,0.042541346,0.044637301,0.046242017,0.046176519,0.047191747,0.048174226,0.049385951,0.050663173,0.052464385,0.053872605,0.054724087,0.055477321,0.057344031,0.057802522,0.059800229,0.05740953,0.058326511,0.058785001,0.059734731,0.060291469,0.059865728,0.058261012,0.056361552,0.056820043,0.055280825,0.054200098,0.051645653,0.049615196,0.048141477,0.046536761,0.04283609,0.040707385,0.038447683,0.036580973,0.032290814,0.029605371,0.026625184,0.023612248,0.020370067,0.018961847,0.018274112,0.015392173,0.011626003,0.010905518,0.008907811,0.00707385,0.005862125,0.005894875,0.003569674,0.004159162,0.004486655,0.003569674,0.001964958,0.001375471,0.001506468,0.001833961,0.00189946,0.001964958,0.002063206,0.002456198,0.001997708,0.001440969,0.001342721,0.001375471,0.001309972,0.003602423,0.002619944,0.001244474,0.001571967,0.001932209,0.002194203,0.001146226,0.001604716,0.00186671,0.00189946,0.001735713,0.001375471,0.001244474,0.001146226,0.001244474,0.002292451,0.002292451,0.002194203,0.001997708,0.00186671,0.001702964,0.001670215,0.001571967,0.001473719,0.001375471,0.001309972,0.001244474,0.001211724,0.001146226,0.001080727,0.001015228,0.00094973,0.00094973,0.001047978,0.001211724,0.001113476,0.000851482,0,0.002881939,0.001506468,0.001342721,0.001539217,0.001015228,0.001997708,0.002390699,0.002259702,0.001670215,0.001146226,0.001473719,0.002652694,0.001670215\nSRI-1053005-001.txt,COC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)c1ccccc1-n1cnnn1,0.995777824,1,0.996532626,0.983347171,0.958650979,0.921359022,0.873735706,0.818092614,0.759241612,0.700626486,0.647695966,0.602313469,0.565847077,0.538108088,0.518601162,0.506217685,0.499282938,0.496782655,0.497230819,0.499990565,0.504000453,0.509024607,0.514308224,0.519969242,0.525795373,0.531267691,0.53633902,0.54100936,0.544854134,0.548116296,0.550364192,0.551826622,0.552237046,0.551854927,0.550267483,0.547776635,0.544170095,0.539681379,0.534256237,0.527347436,0.519778182,0.51099181,0.501382232,0.490947088,0.480096803,0.468482281,0.456171925,0.443479451,0.430527513,0.416827848,0.403090444,0.389586557,0.375990678,0.362786353,0.350237763,0.33758067,0.325451938,0.314261992,0.303779673,0.294493245,0.285619598,0.276618579,0.266966543,0.256432332,0.244364928,0.230613371,0.215793297,0.201841246,0.190672529,0.182938163,0.176930407,0.169299826,0.157833906,0.142108069,0.124148489,0.106629996,0.090856984,0.077416783,0.066207967,0.056725761,0.048795618,0.042047213,0.036421576,0.031501208,0.027463015,0.024125373,0.021235895,0.018846473,0.016806148,0.015173888,0.013699664,0.012470751,0.011423463,0.010416274,0.009555327,0.009012813,0.008312262,0.007774465,0.007389988,0.006937106,0.006545552,0.006224761,0.0061139,0.005816696,0.005573744,0.00539212,0.005222289,0.004972261,0.004870834,0.004675058,0.004649111,0.004392007,0.004285863,0.004257557,0.004019323,0.003752783,0.003648998,0.003658433,0.003552289,0.003332924,0.00311356,0.003167811,0.003047515,0.002880043,0.002740876,0.002719648,0.002507359,0.002358758,0.002264407,0.002323376,0.002196003,0.002026173,0.001825678,0.001816243,0.001728969,0.001585085,0.001450636,0.001448277,0.00144356,0.001247783,0.001160509,0.000997754,0.000936427,0.000985961,0.000901045,0.000835,0.000792543,0.000752444,0.000695833,0.000603842,0.000514209,0.000429294,0.000372684,0.000339661,0.00032315,0.000313715,0.000299562,0.000283051,0.000261822,0.000240593,0.000212288,0.000176907,0.000134449,9.67E-05,8.02E-05,7.78E-05,0.000101427,0.000115579,0,0.000127373,8.26E-05,6.13E-05,0.000120297,0.000106144,0.000134449,0.000115579,8.73E-05,0.000181624,0.000125014,8.96E-05,5.43E-05\nSRI-1052874-001.txt,COc1ccccc1CCNC(=O)C[C@@H]1NC(=O)N(CCc2c[nH]c3ccccc23)C1=O,0.978846042,0.993737315,1,0.996288779,0.979356335,0.946187301,0.897361554,0.831603363,0.751185851,0.660724848,0.566923746,0.477297767,0.394537547,0.321890403,0.260423311,0.210391418,0.170518991,0.139599884,0.116219194,0.098521311,0.085555233,0.075975645,0.069040302,0.064099739,0.06066686,0.058393737,0.056932444,0.05623659,0.05614381,0.056603073,0.057595825,0.059057118,0.060875616,0.063100029,0.065658452,0.068597275,0.072011598,0.075977965,0.080584517,0.085552914,0.090829806,0.096248188,0.101852131,0.107583647,0.113516961,0.119526819,0.125462453,0.131599884,0.137672369,0.143424761,0.148780516,0.153837054,0.158689475,0.163161496,0.167021166,0.170136271,0.172323572,0.173798782,0.174691795,0.175262395,0.175556973,0.175737895,0.175554654,0.174543346,0.17200116,0.166914468,0.158821687,0.149404465,0.14085706,0.134329951,0.129927515,0.125701363,0.119480429,0.109937953,0.098029574,0.085297767,0.073122644,0.062137431,0.052731806,0.044615831,0.03752508,0.031322702,0.026103798,0.021497246,0.017500725,0.014102638,0.011275152,0.008804871,0.006828646,0.005327921,0.004260945,0.003319223,0.002495796,0.002027254,0.001644535,0.001280371,0.001032183,0.000744564,0.000545086,0.000559003,0.000366483,0.000340968,0.000271383,0.000222673,0.000171644,0.000204117,0.000113656,0.000125254,6.73E-05,0.000132212,8.35E-05,5.57E-05,0.00019252,0.000224993,0.000115976,0.000153088,0.000364164,0.000452305,0.000461583,0.000440707,0.000554364,0.000637866,0.000679617,0.000679617,0.000693534,0.000686576,0.000642505,0.000816469,0.000800232,0.000832705,0.000897651,0.000823427,0.000886054,0.000990432,0.001062337,0.001118005,0.0010461,0.001080893,0.001085532,0.001138881,0.001120325,0.001157437,0.001148159,0.001164395,0.001159756,0.001150478,0.001164395,0.001152798,0.001131922,0.001101769,0.001076254,0.001053059,0.001032183,0.001018266,0.001008988,0.00099971,0.000988112,0.000969556,0.000948681,0.000925486,0.000895332,0.000860539,0.000816469,0.00076312,0.000700493,0.000635547,0.000589156,0.000556683,0.000528849,0.000452305,0.000496376,0.000419832,0.000398956,0.000371122,0.000262105,0.000231951,0.000134532,0,5.8E-05,7.65E-05,2.78E-05\nSRI-1052864-001.txt,CCOC(=O)C(CC(C)C)NC(=O)C(Cc1ccccc1)N1C(=O)c2ccccc2C1=O,1,0.99765038,0.986909259,0.963748718,0.929847057,0.881679844,0.822603681,0.755807338,0.685822224,0.615333621,0.549544258,0.490971585,0.439615602,0.39530848,0.357714558,0.32651496,0.300467742,0.278884803,0.260591332,0.244412519,0.229072857,0.213229704,0.196077477,0.177716874,0.159171658,0.140995668,0.124111969,0.109040835,0.09581583,0.084386606,0.074820296,0.066915503,0.060504396,0.055222786,0.050847458,0.047215616,0.044191319,0.041908831,0.040134868,0.038743557,0.037340499,0.035962614,0.034839831,0.033948654,0.033258873,0.032857759,0.032456645,0.031973295,0.031614139,0.031483231,0.031424491,0.031310366,0.031338897,0.031597356,0.03204714,0.03265972,0.033408241,0.03431788,0.035296329,0.036449321,0.037645949,0.039070826,0.040530947,0.042017921,0.043577062,0.045203334,0.046792685,0.048400496,0.049934462,0.05154563,0.053108128,0.054662234,0.056169347,0.05745996,0.058493793,0.059410145,0.059938809,0.060091534,0.060005941,0.059571261,0.059045954,0.058330998,0.057419681,0.056162634,0.054381958,0.052287439,0.049590411,0.046443598,0.042893994,0.03903726,0.035105003,0.03119792,0.027470416,0.023910741,0.020577637,0.017627186,0.014940227,0.012598999,0.010722659,0.009066177,0.007658083,0.006449707,0.005410839,0.004544837,0.003920509,0.003343174,0.00287325,0.002413396,0.002141511,0.001884731,0.001648091,0.001439981,0.001293969,0.000983484,0.000909639,0.000748522,0.000694816,0.000701529,0.000496777,0.000429645,0.000396079,0.000349086,0.000268528,0.000245032,0.000166152,0.000241675,0.000159439,0.000140977,0.000114124,0.000151047,0.000135942,0.000139299,0.000152725,6.55E-05,0.000110768,7.22E-05,4.87E-05,7.05E-05,9.23E-05,5.37E-05,7.55E-05,0.000115803,5.37E-05,2.52E-05,3.52E-05,5.87E-05,4.7E-05,4.03E-05,4.2E-05,4.7E-05,5.2E-05,5.2E-05,4.87E-05,4.7E-05,4.2E-05,3.86E-05,3.52E-05,3.02E-05,2.85E-05,2.52E-05,2.18E-05,1.68E-05,1.34E-05,1.51E-05,2.18E-05,3.02E-05,2.18E-05,1.85E-05,5.54E-05,0.000117481,9.23E-05,8.89E-05,4.36E-05,1.34E-05,1.17E-05,6.88E-05,3.36E-05,1.68E-06,3.02E-05,2.01E-05,0\nSRI-1053188-001.txt,CC1CCN(CC1)C(=O)CCCNS(=O)(=O)c1ccc(C)cc1,0.934027164,0.950281341,0.96557939,0.979443247,0.991394847,0.998087744,1,0.996175488,0.986136143,0.96796971,0.941676188,0.907542416,0.865233749,0.815801929,0.760585533,0.700253852,0.636527917,0.571033144,0.505347146,0.440665083,0.379711919,0.323395976,0.272673382,0.227783169,0.189729272,0.157555563,0.131166428,0.109701353,0.09273008,0.079344287,0.069070691,0.061177854,0.055383718,0.051262806,0.048356177,0.046592121,0.045683799,0.044904555,0.043718956,0.042017048,0.040731056,0.040056985,0.040415533,0.041314294,0.041935777,0.040893597,0.039010025,0.036896982,0.035218977,0.033875617,0.032207174,0.02978817,0.027388288,0.025844142,0.025213097,0.024457756,0.022072216,0.018415027,0.014423192,0.011282311,0.009025849,0.007534289,0.007041883,0.006559039,0.006176587,0.005841942,0.006014046,0.0062722,0.005942336,0.006095316,0.006152684,0.005994923,0.006004484,0.005980581,0.005985362,0.005980581,0.00574633,0.005794136,0.005583788,0.005631594,0.005445149,0.005277827,0.005263485,0.005096163,0.004818885,0.004570292,0.00440775,0.004073106,0.003757583,0.003628506,0.003250835,0.002877945,0.002710623,0.002514617,0.00261501,0.002457249,0.002433346,0.002136946,0.001974404,0.001811863,0.00141507,0.00126687,0.001008715,0.000683632,0.000855735,0.000473283,0.000234251,0.000415916,0.000253374,0.000186445,0,6.69E-05,8.13E-05,9.56E-05,0.000463722,0.000363329,0.000215129,0.00022469,0.000124297,0.00022469,0.000229471,0.000210348,2.87E-05,0.000310742,0.000219909,0.0004446,0.000162542,3.82E-05,0.000411135,0.000387232,0.000315522,0.000167322,0.000215129,6.21E-05,0.000368109,0.000272496,0.000516309,0.000243813,5.74E-05,0.000239032,0.000119516,0.000291619,0.000234251,0,0.0001482,0.000186445,0.000167322,0.000138639,0.000105174,0.000109955,0.000109955,0.000105174,9.08E-05,9.56E-05,9.08E-05,8.61E-05,7.17E-05,7.65E-05,9.08E-05,9.56E-05,9.56E-05,9.08E-05,8.13E-05,8.61E-05,0.000138639,0.000215129,0.000315522,0.000248593,9.56E-05,8.13E-05,3.82E-05,0.000262935,8.61E-05,0.000176884,0.000176884,0.000205568,6.69E-05,0.000205568,9.08E-05,0.000248593,0.000181664\nSRI-1053396-001.txt,CC(NS(=O)(=O)c1ccccc1)C(O)=O,0.99744352,1,0.991795482,0.972592152,0.943222354,0.904221165,0.85588585,0.801010702,0.740725327,0.676337693,0.610344828,0.545422117,0.481212842,0.42039239,0.364149822,0.313793103,0.268608799,0.22901308,0.195124851,0.165636147,0.141141498,0.120808561,0.1039239,0.090309156,0.079310345,0.070790725,0.064298454,0.059256837,0.055398335,0.052431629,0.050445898,0.049827586,0.050630202,0.051652794,0.052288942,0.052818074,0.054060642,0.056700357,0.060951249,0.065505351,0.068495838,0.069310345,0.068335315,0.068906064,0.072604043,0.078941736,0.084328181,0.084054697,0.07755648,0.068537455,0.062122473,0.061361474,0.06520214,0.069565993,0.068495838,0.059863258,0.046236623,0.033186683,0.023394768,0.017021403,0.013002378,0.010499405,0.009351962,0.008745541,0.008002378,0.007907253,0.007764566,0.007449465,0.007104637,0.007021403,0.006712247,0.006617122,0.006504162,0.006224732,0.006325803,0.005862069,0.005523187,0.005475624,0.005535077,0.005451843,0.004857313,0.004714625,0.004720571,0.004262782,0.004185493,0.003763377,0.003692033,0.003448276,0.003258026,0.003151011,0.002687277,0.002829964,0.002467301,0.002003567,0.002092747,0.001890606,0.001593341,0.001236623,0.001099881,0.000713436,0.00048157,0.000321046,0.000315101,0.00020214,0.000172414,0.000142687,0.000118906,4.76E-05,0,0.000184304,0.00020214,0.000160523,0,4.16E-05,0,0,0,0,0.000214031,0,0,0.000196195,0.00019025,0.000172414,0.000285375,0.000350773,0.00019025,4.76E-05,0,0.000219976,5.35E-05,0,0,0,0.000107015,0.000107015,2.38E-05,0,0,0.000166468,0.000148633,0,0,0,0.00010107,8.32E-05,5.35E-05,4.76E-05,7.13E-05,6.54E-05,2.38E-05,0,0,0,0,0,0,0,0,0,0,0,0,0,1.78E-05,2.97E-05,0,0.000130797,4.16E-05,0,7.13E-05,0,5.95E-05,0.000196195,0.000214031,0.000107015,0.000118906,0,7.13E-05,2.38E-05,0\nSRI-1052838-001.txt,CCc1cc(=O)oc2cc(OC(C)C(=O)N[C@@H](Cc3c[nH]c4ccccc34)C(O)=O)ccc12,1,0.984877806,0.958704779,0.921956791,0.87516259,0.818322177,0.754026416,0.684390301,0.612956442,0.541786957,0.47439802,0.413909246,0.361298817,0.317121919,0.280400368,0.250631854,0.226917505,0.207856138,0.192707507,0.180123304,0.169733405,0.16053319,0.152311158,0.144644311,0.137717712,0.131557797,0.126376067,0.122384019,0.119581655,0.117982192,0.117204932,0.117038377,0.117025158,0.116996077,0.116974927,0.117389994,0.119007963,0.12182619,0.125559151,0.130629845,0.136718378,0.143613253,0.151256305,0.159256263,0.167880143,0.176673223,0.185696308,0.194949399,0.20407559,0.213185918,0.222053023,0.230555291,0.238901579,0.247057517,0.254467921,0.261473832,0.267871683,0.273835961,0.279824033,0.285838542,0.29104671,0.29574728,0.29932426,0.301613739,0.302269387,0.301872826,0.300143819,0.298599875,0.298441251,0.300141176,0.302097543,0.302322261,0.298874824,0.291149815,0.281082453,0.27103624,0.262018443,0.255271618,0.250883009,0.249386652,0.249949769,0.252582934,0.256641075,0.262296035,0.269040217,0.276101647,0.284305172,0.292207312,0.300318306,0.307818597,0.314829796,0.321362478,0.326993644,0.332059051,0.336696171,0.340447638,0.343416558,0.345811787,0.347551368,0.348101266,0.347641255,0.346369616,0.343435064,0.339326692,0.333576557,0.326734558,0.318964606,0.309859565,0.300056576,0.289582078,0.278692512,0.26789019,0.256802343,0.245513573,0.234082041,0.222621427,0.210880577,0.198801328,0.186211838,0.173241648,0.159880186,0.146333661,0.1326338,0.119060838,0.105635925,0.092729186,0.080507175,0.069435191,0.059211848,0.050109451,0.042270761,0.035436693,0.029549084,0.024568277,0.020370018,0.016909362,0.013948373,0.011587513,0.009681376,0.008126857,0.006876368,0.005797722,0.004975519,0.004296078,0.003841354,0.003402494,0.003204213,0.003143407,0.00303237,0.002757421,0.002432241,0.002138786,0.001935218,0.001805675,0.001721075,0.001654981,0.001594175,0.001533369,0.001472563,0.00140647,0.001337733,0.001261064,0.001171177,0.001076002,0.000991403,0.000946459,0.000922665,0.000845997,0.000742891,0.000658291,0.00060806,0.000507598,0.000494379,0.000404492,0.000200924,0.00021943,0.000155981,8.2E-05,0.000134831,0,2.91E-05\nSRI-031199.txt,COC(=O)\\C=C(\\O\\N=C(/N)C1=NC=CC=C1)C(=O)OC,0.01078214,0.003855624,5.67E-11,0.000414472,0.003876411,0.011018359,0.020871269,0.032233142,0.044739707,0.057615628,0.071264362,0.086012594,0.101985357,0.119455427,0.138494323,0.157669391,0.176550314,0.195540833,0.215258778,0.236255945,0.258449814,0.282076857,0.306738576,0.332134691,0.358619049,0.384538772,0.410358681,0.436056742,0.460644966,0.484013702,0.506762507,0.528289796,0.54917814,0.570256011,0.590614183,0.609548727,0.628240375,0.64712058,0.665689559,0.684239609,0.704029868,0.72405529,0.744416071,0.765382515,0.785892246,0.806640843,0.828349125,0.850187795,0.87117286,0.891293957,0.909861792,0.926728713,0.94209618,0.956583746,0.971036429,0.984683059,0.991943738,0.993345142,0.993738348,0.995732581,0.999983548,0.999999999,0.995870145,0.99206109,0.989445728,0.98851059,0.98696581,0.986867433,0.988823691,0.988139826,0.987837287,0.988270693,0.987563956,0.983907214,0.976398612,0.964880157,0.950582009,0.933814806,0.914162571,0.891816254,0.8666604,0.838332927,0.807849873,0.776418357,0.743851394,0.710978384,0.678191677,0.6457001,0.613387208,0.580711192,0.548309349,0.516619096,0.485521793,0.45508814,0.426027783,0.398038633,0.371010542,0.345295381,0.321101417,0.298054034,0.276329243,0.25600859,0.236989212,0.219231552,0.202981836,0.188683305,0.175443704,0.162649063,0.150692957,0.139324351,0.129050233,0.11954431,0.110546993,0.102531536,0.095182113,0.08836066,0.082080796,0.076327426,0.071014112,0.066081653,0.061529348,0.057373323,0.053543929,0.04989524,0.04645919,0.043294322,0.04032873,0.037543435,0.035053286,0.032479042,0.03011607,0.0280935,0.02611749,0.024248028,0.022532085,0.02096688,0.019509254,0.018107287,0.016756444,0.015510947,0.014398523,0.013382709,0.01242692,0.011587731,0.010789336,0.010016876,0.009467498,0.009257148,0.008798339,0.008175906,0.007499606,0.006833892,0.00644818,0.005958405,0.005454687,0.005296309,0.005314934,0.004820807,0.004808304,0.005239729,0.005190175,0.00445982,0.004242943,0.004374684,0.004213264,0.003699342,0.003455867,0.003876741,0.004837203,0.004694536,0.003005411,0.002303166,0.003178328,0.004221981,0.004317362,0.003561027,0.002655426,0.002520654,0.003691157,0.004793373,0.004013289\nSRI-1052940-001.txt,CCOC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)COc1ccc(Cl)c(C)c1,0.996038741,1,0.995378531,0.979533496,0.952024753,0.911311815,0.85783482,0.794014538,0.722711878,0.647668029,0.57416467,0.504622569,0.439922007,0.380503124,0.326674017,0.277796484,0.234640769,0.197360921,0.165824899,0.140010695,0.119434156,0.103589121,0.091331225,0.082308358,0.075750273,0.071040777,0.067915784,0.066045189,0.065164909,0.065098888,0.065781105,0.067035504,0.068914901,0.071355477,0.074209784,0.077581255,0.081410472,0.085633614,0.090263886,0.095125231,0.100259462,0.105567549,0.111130917,0.117026591,0.12290906,0.128809136,0.134759827,0.140635694,0.146529167,0.152372024,0.157649301,0.162686702,0.167411603,0.171531313,0.175021622,0.177662461,0.179678302,0.181700744,0.183875035,0.186016316,0.187913319,0.188725377,0.188135589,0.186326615,0.182770284,0.177294944,0.170116263,0.162473234,0.156194639,0.151764631,0.147942016,0.141826272,0.130886596,0.11529244,0.097314927,0.080182482,0.065173712,0.05273756,0.042616544,0.034359519,0.027557158,0.022024599,0.017539574,0.013846801,0.010801033,0.008639946,0.006758348,0.005281679,0.004161523,0.003281243,0.00264304,0.002154485,0.001712144,0.001498676,0.001181776,0.001014522,0.001016723,0.000801055,0.000790051,0.000702023,0.000647006,0.000651407,0.000669013,0.000578784,0.000552376,0.000495157,0.000429136,0.000464348,0.000514964,0.000488555,0.000437939,0.000303697,0.00037852,0.000495157,0.00040933,0.000301496,0.000272887,0.000242077,0.000354313,0.000398327,0.000303697,0.000261883,0.000338908,0.000261883,0.000319101,0.000325704,0.000121038,0.000352112,0.000277288,0.000224471,0.000213468,0.000242077,0.00028389,0.000187059,0.000347711,0.000248679,0.000308098,0.000123239,0.000206866,0.000198063,0.000132042,0.00012544,7.92E-05,0.000187059,0.000149648,0.000178257,0.000176056,0.000160651,0.000136443,0.000101232,8.14E-05,6.82E-05,4.84E-05,3.74E-05,3.74E-05,3.96E-05,4.84E-05,5.5E-05,5.94E-05,6.38E-05,6.82E-05,6.82E-05,7.04E-05,6.16E-05,3.96E-05,4.4E-06,3.08E-05,3.96E-05,0,5.06E-05,9.68E-05,7.26E-05,0.000145246,5.72E-05,6.16E-05,1.54E-05,7.04E-05,9.46E-05,8.14E-05,4.84E-05,8.14E-05\nSRI-1052828-001.txt,COc1ccc(cc1)S(=O)(=O)[C@H]1CS(=O)(=O)C[C@@H]1NCCc1c[nH]c2ccccc12,0.995205549,1,0.99265531,0.973477507,0.940630419,0.8957462,0.837600734,0.771498521,0.698867694,0.628175048,0.564113027,0.511782108,0.470264205,0.443129654,0.427114149,0.42180965,0.424155871,0.433132714,0.446291951,0.461899419,0.478526982,0.495664592,0.511476079,0.525757421,0.537488524,0.546057329,0.550647761,0.551769866,0.548240335,0.540130572,0.528103642,0.511649495,0.492216668,0.470570234,0.448199531,0.424451698,0.400816077,0.378078139,0.357472202,0.339457309,0.324492502,0.311741304,0.300938488,0.290910946,0.281617872,0.272518617,0.2648985,0.258951341,0.254503723,0.250076507,0.244557788,0.238059778,0.231500561,0.223972253,0.216525553,0.209272672,0.20329491,0.198174028,0.194216056,0.191349587,0.187310007,0.183505049,0.179434867,0.175201469,0.16893808,0.161266959,0.153585637,0.145822707,0.14127308,0.139314496,0.137355911,0.134122207,0.127501785,0.115454453,0.101132306,0.086391921,0.073579516,0.061440375,0.051688259,0.044190554,0.037355911,0.031622973,0.02712435,0.022931756,0.02010609,0.017566051,0.015291237,0.013659084,0.011924921,0.011098643,0.010670203,0.009925533,0.009854126,0.008885035,0.00861981,0.008344384,0.008446394,0.008425992,0.008385188,0.008517801,0.008885035,0.008660614,0.008334183,0.00819137,0.00840559,0.007946547,0.008272978,0.008130164,0.007467102,0.007365092,0.007303887,0.007507906,0.006946853,0.006579618,0.006691829,0.006049169,0.005600326,0.005590125,0.005008671,0.004488422,0.004212996,0.004702642,0.00415179,0.003713149,0.003978374,0.00329491,0.003570336,0.00362134,0.003580537,0.003152096,0.003121493,0.003386718,0.003254106,0.002509436,0.002897072,0.002886871,0.002244211,0.002784862,0.003743752,0.002988881,0.002509436,0.00244823,0.002713455,0.002529838,0.002478833,0.002795063,0.002866469,0.002529838,0.001989187,0.001693359,0.001560747,0.001479139,0.001530144,0.001652555,0.001795369,0.001897378,0.001958584,0.001999388,0.00201979,0.001999388,0.001968785,0.001907579,0.001825972,0.001693359,0.001509742,0.001397531,0.001632153,0.001519943,0.000969091,0.001377129,0.00117311,0.00117311,0.001254718,0.001122105,0.001081302,0.000591656,0.000805876,0.000204019,0.000601857,0.000142813,0\nSRI-1052950-001.txt,Nc1c(-c2nc3ccccc3[nH]2)c2nc(C#N)c(nc2n1-c1ccc(Cl)cc1)C#N,0.935368043,0.8994614,0.8994614,0.875523639,0.851585877,0.851585877,0.863554758,0.863554758,0.875523639,0.875523639,0.887492519,0.923399162,0.935368043,0.947336924,0.960502693,0.985637343,0.992818671,0.997606224,1,0.996409336,0.991621783,0.978456014,0.956912029,0.931777379,0.904248953,0.865948534,0.831238779,0.79293836,0.754637941,0.717534411,0.678037104,0.639736685,0.606702573,0.580131658,0.546140036,0.517654099,0.493955715,0.477199282,0.461160981,0.446080192,0.434709755,0.418432077,0.416157989,0.4171155,0.410652304,0.406104129,0.407899461,0.404308797,0.406343507,0.414362657,0.414602035,0.417713944,0.425493716,0.430281269,0.425972472,0.425613405,0.422860563,0.41807301,0.421304608,0.417594255,0.415918612,0.41304608,0.404548175,0.407660084,0.403351287,0.408737283,0.41304608,0.419389587,0.424416517,0.429204069,0.438539797,0.44727708,0.460083782,0.478515859,0.486175943,0.50149611,0.516457211,0.525792938,0.535846798,0.53764213,0.549251945,0.563614602,0.565529623,0.57989228,0.583004189,0.592579294,0.599162178,0.602752843,0.600359066,0.602393776,0.597725913,0.601316577,0.6,0.603949731,0.610652304,0.627648115,0.646558947,0.658767205,0.667624177,0.660083782,0.638539797,0.601196888,0.548055057,0.496110114,0.427528426,0.356433273,0.292758827,0.234470377,0.185517654,0.135966487,0.097546379,0.070257331,0.049910233,0.040454817,0.020825853,0.014841412,0.006104129,0.001795332,0,0.007301017,0.004308797,0.010891682,0.017833633,0.021903052,0.029922202,0.035068821,0.04320766,0.047396768,0.052064632,0.062238181,0.066427289,0.078156792,0.083183722,0.086894075,0.106403351,0.110712148,0.123279473,0.126870138,0.132974267,0.143267504,0.151286655,0.159545183,0.16277678,0.174266906,0.183123878,0.191741472,0.197845601,0.201196888,0.205266308,0.212687014,0.22214243,0.23111909,0.23722322,0.241053262,0.244284859,0.247157391,0.250149611,0.25326152,0.256493118,0.260083782,0.263554758,0.267743866,0.272172352,0.276122083,0.279114303,0.280670257,0.282226212,0.282585278,0.283662478,0.281986834,0.284500299,0.276481149,0.275523639,0.267624177,0.268940754,0.262597247,0.259964093,0.257091562,0.242130461,0.239736685,0.239736685\nSRI-1053247-001.txt,O=C(Cn1nnc2ccccc2c1=O)NC1CS(=O)(=O)C=C1,0.989883236,0.993868628,0.996972635,0.999348542,1,0.995823003,0.986702586,0.972217219,0.95267347,0.929297613,0.903239281,0.875724747,0.844071538,0.806325277,0.760148379,0.704467854,0.641927857,0.576743705,0.512977433,0.45453779,0.403915648,0.362030711,0.327825317,0.300805126,0.279559921,0.262418903,0.248243937,0.235942871,0.224848919,0.214881607,0.20572287,0.197637122,0.190666518,0.184903029,0.179729683,0.175173307,0.170931164,0.166750334,0.162703629,0.158814039,0.155725361,0.153985584,0.153640694,0.154610217,0.157185394,0.161209107,0.166347963,0.172345212,0.178974758,0.186213609,0.193759029,0.201365763,0.209198591,0.216820654,0.224419723,0.231888501,0.239223155,0.246274233,0.252712174,0.258609788,0.263660506,0.267638234,0.270401183,0.272071982,0.272688952,0.272094975,0.270815051,0.268753377,0.266116887,0.263074193,0.259288071,0.255206876,0.250742471,0.24596,0.241074063,0.236490862,0.23212226,0.228163692,0.224664978,0.221503489,0.218721379,0.215552226,0.211566834,0.206297686,0.199990037,0.192456113,0.183906681,0.175272942,0.166999421,0.159691592,0.153644526,0.149341069,0.146788885,0.145401662,0.144190716,0.141404774,0.136373217,0.128433089,0.117592057,0.104850299,0.090916755,0.077420072,0.064728131,0.053304618,0.043421612,0.03514426,0.028675662,0.023099945,0.018620211,0.015274781,0.012354715,0.010204903,0.008350163,0.006989764,0.005713673,0.004916594,0.004027545,0.003429736,0.002969883,0.002375907,0.002115323,0.001850908,0.001620982,0.00149069,0.001421712,0.001230107,0.000835399,0.000954195,0.000969523,0.000839232,0.00085456,0.000827735,0.000639962,0.000536495,0.000521167,0.000547991,0.000513502,0.000456021,0.000479013,0.000413868,0.000375547,0.000467517,0.000337225,0.000256751,0.000245255,0.000310401,0.000314233,0.000241423,0.00014562,7.28E-05,3.45E-05,2.3E-05,1.15E-05,3.83E-06,0,1.15E-05,3.45E-05,8.05E-05,0.000114963,0.00014562,0.000172445,0.00019927,0.000214598,0.000203102,0.000183941,0.000176277,0.000241423,0.000367882,0.000287408,0.000172445,0.000153284,0.000180109,0.000172445,0.000256751,0.000371714,0.000287408,0.000260583,0.000310401,6.13E-05,0.000153284,0.000222262\nSRI-1052881-001.txt,Cc1c(C)c(=O)oc2cc(OCC(=O)N[C@@H](Cc3c[nH]c4ccccc34)C(O)=O)ccc12,1,0.989310983,0.96873798,0.936536759,0.892930937,0.837026038,0.772288165,0.702854281,0.630468617,0.558463107,0.490840541,0.430597422,0.377867921,0.333322898,0.296649284,0.266974964,0.243517268,0.224442516,0.209370556,0.196445343,0.185622154,0.175738168,0.166390869,0.158027496,0.150469154,0.144051272,0.139019831,0.135330107,0.133004463,0.131770083,0.131050028,0.130490979,0.129851427,0.129290142,0.129073231,0.129580847,0.131396639,0.134818018,0.139751067,0.14603925,0.153496963,0.161694858,0.170697783,0.180092042,0.189926832,0.200014312,0.210253853,0.220710305,0.231014696,0.241256474,0.251004052,0.260709142,0.270128,0.279068311,0.287530077,0.295162214,0.302257663,0.309180926,0.315587628,0.322018927,0.327982862,0.332853297,0.336545256,0.339148188,0.340141059,0.339575302,0.338101649,0.336782293,0.337307799,0.339624498,0.342379491,0.342553915,0.337831069,0.328586635,0.317374348,0.306173243,0.296872904,0.290531052,0.287053767,0.286318059,0.287577037,0.291257816,0.296535238,0.303125307,0.310808877,0.31894863,0.327792785,0.336149449,0.344456917,0.352366343,0.359734608,0.36612342,0.371747453,0.376890704,0.381101461,0.384824727,0.387660223,0.38940222,0.390236321,0.390041772,0.388393696,0.385502294,0.380598317,0.374336968,0.366496865,0.357373185,0.347093392,0.335740226,0.323642405,0.311363453,0.298945857,0.286510371,0.273815487,0.261113894,0.247976243,0.234585901,0.220916035,0.206620035,0.191957298,0.176614757,0.160961385,0.145231983,0.129600973,0.114249488,0.099479414,0.085610526,0.072949185,0.061613907,0.051443688,0.042720288,0.035396746,0.029213664,0.02389599,0.019443724,0.015778599,0.012969937,0.010554845,0.008707747,0.00717148,0.005977352,0.005118653,0.004215229,0.003602512,0.003157509,0.002784064,0.002517957,0.002417328,0.002394966,0.002325644,0.002113205,0.001864987,0.001639132,0.001471417,0.00136408,0.001294757,0.001243325,0.001200837,0.00115835,0.001115862,0.00107561,0.001033123,0.00098169,0.000930258,0.000867644,0.000791613,0.000717819,0.000655205,0.000534451,0.00057023,0.000485255,0.000451712,0.000348847,0.000377917,0.000375681,0.000201258,0.000196785,0.000136408,5.37E-05,0.000122991,2.24E-06,0\nSRI-0000139.txt,NC(CC1=CC=CC=C1)C(=O)NC1=CC=CC(=C1)[N+]([O-])=O,0.611821597,0.615396677,0.62373853,0.63634539,0.652025565,0.670904495,0.692041371,0.715248029,0.738768291,0.76379385,0.788819408,0.813970408,0.838745084,0.863707922,0.886538256,0.908051456,0.928372962,0.945934758,0.960611401,0.973908189,0.98475887,0.992536237,0.997742055,1,0.99824382,0.993038002,0.982827073,0.968877989,0.951328738,0.929671281,0.904695899,0.877167784,0.84736918,0.815845757,0.783839385,0.751732659,0.719343691,0.689363197,0.660273337,0.631854588,0.604608717,0.578792877,0.553873944,0.530592021,0.508282268,0.486587179,0.465180604,0.444539222,0.424801019,0.406467758,0.389890678,0.374317128,0.360562479,0.348388392,0.337393453,0.327238972,0.317893588,0.308886896,0.299754762,0.290697893,0.281465406,0.272151383,0.26223524,0.252068215,0.24175066,0.231815701,0.221228448,0.210547113,0.200154293,0.190156614,0.180271832,0.170518763,0.161104386,0.152524195,0.14402554,0.136279534,0.128947484,0.122029391,0.11620891,0.110476238,0.10508853,0.100792162,0.097016376,0.093190414,0.089985386,0.087338573,0.084961458,0.082885403,0.080953605,0.079611383,0.078488682,0.077453791,0.076751319,0.076011214,0.075289926,0.074894786,0.074505918,0.074186042,0.073828534,0.073615284,0.073477298,0.072925356,0.072649385,0.07236087,0.071953185,0.071532957,0.071018647,0.070303631,0.069507078,0.068622716,0.067970421,0.066897897,0.06590691,0.064752849,0.063598788,0.062526264,0.06142238,0.059565847,0.058493323,0.057182461,0.055576811,0.05402761,0.052553673,0.051023288,0.049273381,0.047692819,0.046444677,0.04469477,0.042581082,0.041019337,0.039614393,0.038190633,0.036791962,0.035054598,0.033819001,0.032558315,0.031153371,0.029597898,0.027967159,0.026650025,0.025383067,0.023802505,0.023238019,0.021807987,0.020541029,0.019462233,0.018722128,0.018264267,0.017555523,0.016219573,0.014714276,0.01333442,0.012324617,0.011653506,0.011176828,0.010775416,0.010380276,0.009934959,0.009452009,0.008912611,0.00830422,0.007601749,0.006792652,0.005883202,0.004961207,0.004189743,0.003631528,0.00327402,0.002860064,0.002540188,0.00211996,0.001680915,0.001599378,0.001317135,0.000990987,0.000959627,0.000915722,0.000595847,0.000407685,0.000188162,0\nSRI-1052891-001.txt,CC(C)[C@H](NC(=O)N1CCN(CC1)C(c1ccc(F)cc1)c1ccc(F)cc1)C(O)=O,0.966892284,0.984142332,0.995745504,1,0.995281377,0.978031329,0.946934829,0.901373042,0.841345968,0.768323342,0.684935216,0.597292593,0.508180236,0.42324502,0.346973506,0.279597757,0.223283698,0.178031329,0.142757687,0.115451557,0.095107329,0.080796751,0.070431251,0.063391994,0.058750725,0.05588861,0.054264166,0.053800039,0.054032102,0.055470895,0.057149488,0.059980661,0.062773158,0.065519242,0.068775865,0.071908722,0.07515761,0.078476117,0.081578031,0.084324115,0.086683427,0.08907368,0.090729066,0.091703732,0.09201315,0.091015278,0.087812802,0.08232837,0.075699091,0.069866564,0.067050861,0.066370141,0.065797718,0.062046026,0.054055308,0.043558306,0.033664668,0.025635274,0.019678979,0.015710694,0.012570102,0.011123574,0.010087024,0.009011797,0.008741056,0.008137691,0.007936569,0.007905628,0.007789596,0.007495649,0.007108876,0.006606072,0.006667956,0.006753046,0.00613421,0.006018178,0.005530845,0.005592729,0.005468962,0.005089925,0.004881067,0.004741829,0.004973893,0.004857861,0.00448656,0.004130729,0.004006962,0.003643396,0.003713015,0.003612454,0.003132856,0.0026842,0.002653259,0.002947206,0.002691936,0.002428931,0.002467608,0.002165925,0.002034423,0.001957068,0.001725005,0.001709534,0.00164765,0.001198994,0.001454264,0.001044285,0.001345968,0.001701798,0.001152582,0.001253143,0.001407851,0.001106169,0.000928254,0.000827693,0.000804487,0.000448656,0.000672984,0.000688455,0.000742603,0.000665249,0.000734868,0.000742603,0.000433185,0.000549217,0.000881841,0.000680719,0.000309418,0.000587894,0.000657513,0.000827693,0.000819957,0.001044285,0.000618836,0.000603365,0.000572423,0.000471862,0.000402243,0.000471862,0.000363566,0.00034036,0.000464127,0.000379037,0.000665249,0.000858635,0.000402243,0.000495069,0.000618836,0.000711661,0.000727132,0.000711661,0.000680719,0.000642042,0.000587894,0.000541481,0.000487333,0.000448656,0.000417714,0.000386772,0.000371301,0.000363566,0.000363566,0.000355831,0.000371301,0.000386772,0.000371301,0.000371301,0.000440921,0.000657513,0.00051054,0.000920518,0.000719397,0.000263005,0.000232063,0.000688455,0.000587894,0.000479598,0.000564688,0,0.000379037,0.000603365,0.000123767\nSRI-1053121-001.txt,CC(C)CNC(=O)C[C@@H]1NC(=O)N(CCc2c[nH]c3ccccc23)C1=O,0.995985638,1,0.992831496,0.974002224,0.940676643,0.889605031,0.821105989,0.737154837,0.644410319,0.547619579,0.455225521,0.37334527,0.302775326,0.24507683,0.199293982,0.16440726,0.137963444,0.118210232,0.103427182,0.092435475,0.08418373,0.078130327,0.073415044,0.070037882,0.0675528,0.065896079,0.064908418,0.064589818,0.064752304,0.065440481,0.066571511,0.068100792,0.070152578,0.072577125,0.075466829,0.078566809,0.082103271,0.085894613,0.090026858,0.094445843,0.099011384,0.103784015,0.10864904,0.113638319,0.118672202,0.123626435,0.128580668,0.133525343,0.138514622,0.143115209,0.147413126,0.1517206,0.155441851,0.158745735,0.161638625,0.163601202,0.165069949,0.166325233,0.167593262,0.169523979,0.171719135,0.173519226,0.174401748,0.174181914,0.172072781,0.167940536,0.161724647,0.155499199,0.150678778,0.148419902,0.147961118,0.146043145,0.139897347,0.12869855,0.114202241,0.098670481,0.083887432,0.07121033,0.06038111,0.05092187,0.042899517,0.03604324,0.029964349,0.024803025,0.020677153,0.016990949,0.013913271,0.011367655,0.009370032,0.007560383,0.006356074,0.005205927,0.004396683,0.00378497,0.003217862,0.002810054,0.002418176,0.002054971,0.001841509,0.001577071,0.001354051,0.001245727,0.000949429,0.000742338,0.000774198,0.000506574,0.000417366,0.000423738,0.000395064,0.000458784,0.000328158,0.00033453,0.000360018,0.000232578,0.000280368,0.000187974,0.000340902,0.000156114,0.000315414,0.000273996,0.000242136,0.000232578,0.000165672,0.000168858,0.000181602,0.000168858,0.00023895,0.000242136,0.000105138,0.0003186,0.000152928,9.24E-05,0.00014337,0.000178416,0.00030267,0.000203904,0.000117882,0.000108324,0.000101952,0.000172044,7.65E-05,0.000149742,0.00027081,0.000114696,0.000136998,0.000114696,0.000105138,9.88E-05,8.92E-05,7.65E-05,5.73E-05,5.73E-05,7.01E-05,6.69E-05,6.05E-05,5.42E-05,5.73E-05,5.42E-05,4.78E-05,4.46E-05,5.1E-05,5.42E-05,6.05E-05,7.01E-05,7.33E-05,7.01E-05,0.00019116,0.000162486,8.6E-05,0.000162486,0.00011151,0.000114696,0.000130626,3.5E-05,0.000200718,0.000156114,0.000162486,5.1E-05,0.000117882,0,0.000203904\nSRI-1053059-001.txt,C[C@H](NC(=O)c1cc2ccccc2[nH]1)C(=O)NCCc1c[nH]c2ccccc12,0.988465888,0.967169242,0.951526574,0.940972484,0.933999246,0.931059178,0.929815303,0.932416133,0.937090087,0.942291745,0.948812665,0.955597437,0.962419902,0.968790049,0.975273276,0.980776479,0.985601206,0.989935922,0.993856012,0.997022239,0.99917075,1,0.999924614,0.9990049,0.996140219,0.992416133,0.98790049,0.982254052,0.975733132,0.968725971,0.960595552,0.951372032,0.941013946,0.92883905,0.914937806,0.8990049,0.880380701,0.860214851,0.837007162,0.811368262,0.783497927,0.753580852,0.722521674,0.690252544,0.657727101,0.625220505,0.59364493,0.56276291,0.534285714,0.506830004,0.48204297,0.458548813,0.43784772,0.41850735,0.401733886,0.386863928,0.373848473,0.36237467,0.35237467,0.343558236,0.335947983,0.329675839,0.323893705,0.319023747,0.314983038,0.311496419,0.308379193,0.305838673,0.303524312,0.301462495,0.299690916,0.298051263,0.29640784,0.294851112,0.293411233,0.291647192,0.289758764,0.28773464,0.285548436,0.282992838,0.280335469,0.277387863,0.274191481,0.270678477,0.266841312,0.263105918,0.258914436,0.254534489,0.250007539,0.245133811,0.240376932,0.23541274,0.230290237,0.225039578,0.219800226,0.214534489,0.20928006,0.204119864,0.198827742,0.193543159,0.188307576,0.183136072,0.177617791,0.172404825,0.167240859,0.162137203,0.15679608,0.151356954,0.146072371,0.140490011,0.134952884,0.129562759,0.124150019,0.118443272,0.113034301,0.107436864,0.101914813,0.096453072,0.091285337,0.085778364,0.080392009,0.075284583,0.07027516,0.065235582,0.060199774,0.055363739,0.050712401,0.046302299,0.04243121,0.038492273,0.034745571,0.031466265,0.028333962,0.025348662,0.022600829,0.020116849,0.017828873,0.015676593,0.013780626,0.012129665,0.010376932,0.00917075,0.007896721,0.006747079,0.005774595,0.005020731,0.004534489,0.004293253,0.003995477,0.003460234,0.002834527,0.002254052,0.001862043,0.001609499,0.001447418,0.001319261,0.001187335,0.00104787,0.000934791,0.00082925,0.000731248,0.000618168,0.00049755,0.000376932,0.000252544,0.00016585,0.000124387,0.000297776,4.15E-05,0.000173389,0.000184697,0.000233698,0.000180927,9.42E-05,0.000116849,2.26E-05,0,9.8E-05,0.000139465,0.000199774,0.000192235\nSRI-1053049-001.txt,O=C(C[C@H]1NC(=O)c2ccccc2NC1=O)NCCc1c[nH]c2ccccc12,1,0.992132342,0.97634056,0.951401215,0.919667074,0.878126594,0.828680812,0.771442661,0.707447359,0.640139359,0.57397951,0.512863997,0.458505634,0.412184329,0.37406948,0.343332913,0.318732366,0.299439665,0.283986681,0.271545242,0.261456571,0.253043071,0.245683611,0.239340547,0.233355104,0.227896681,0.22262648,0.217408981,0.21200326,0.20664083,0.200994186,0.195302368,0.189264223,0.183028446,0.17682843,0.170532422,0.164042546,0.157684424,0.151414767,0.145210987,0.139276364,0.133753946,0.128816896,0.124532975,0.121011352,0.118442128,0.116680375,0.115776912,0.115558575,0.116091242,0.117218689,0.118677405,0.120480567,0.122462539,0.124325932,0.126217558,0.127828734,0.129541549,0.131572459,0.133904523,0.136513272,0.139014736,0.141045646,0.142267203,0.142496833,0.141433382,0.139421294,0.137117463,0.135312419,0.134740226,0.134787281,0.133885701,0.130603118,0.124389927,0.115921843,0.106497594,0.097191924,0.088317281,0.080417626,0.072879356,0.06597351,0.0594554,0.053432313,0.047746142,0.04244959,0.037557713,0.032989578,0.028876939,0.025159565,0.021767814,0.018712979,0.016034588,0.013676172,0.011585032,0.009751755,0.008270452,0.006947255,0.005863099,0.004873054,0.003986531,0.003320227,0.002800736,0.002326417,0.001970679,0.001684582,0.001413543,0.001221557,0.001012632,0.000912874,0.000799941,0.000630542,0.000528902,0.000540196,0.000502551,0.000423498,0.000395265,0.000319977,0.000284214,0.000293626,0.000287979,0.000312448,0.000271039,0.000261628,0.000299272,0.00022963,0.000261628,0.000173164,6.59E-05,0.000207044,0.000222101,0.000171282,0.000112933,0.000173164,0.000175046,0.00017881,0.000169399,0.000158106,0.000135519,0.000133637,0.000114815,5.65E-05,9.03E-05,0.000114815,0.000131755,7.91E-05,5.83E-05,5.83E-05,4.71E-05,3.2E-05,3.76E-05,4.89E-05,5.46E-05,5.65E-05,5.65E-05,5.08E-05,4.71E-05,4.71E-05,4.52E-05,3.76E-05,3.01E-05,2.64E-05,2.07E-05,2.64E-05,2.82E-05,3.39E-05,5.27E-05,4.89E-05,0.000139284,0,2.45E-05,1.51E-05,3.2E-05,8.47E-05,3.01E-05,5.46E-05,6.02E-05,2.07E-05,3.95E-05,2.64E-05,3.01E-05,4.33E-05\nSRI-1053143-001.txt,NC(=O)NCCC[C@H](NS(=O)(=O)c1ccc(Cl)cc1)C(O)=O,0.640659492,0.675833461,0.712058607,0.751194702,0.788956182,0.826394223,0.863508826,0.898278497,0.929166903,0.956093183,0.977197565,0.991590591,1,0.999191403,0.990377696,0.973316299,0.948088072,0.914693016,0.872160814,0.823483274,0.768417818,0.708743359,0.646157951,0.580823313,0.515165237,0.44966888,0.387301793,0.328654252,0.276038845,0.229851784,0.189899006,0.156972936,0.130483298,0.108942274,0.091888963,0.078652231,0.0686418,0.061712123,0.05656136,0.05289033,0.049979381,0.0474323,0.044408147,0.041537628,0.040437936,0.039766801,0.039985122,0.040729031,0.039694027,0.038715625,0.03663753,0.034163223,0.03176169,0.029707854,0.027767221,0.025972136,0.024654123,0.024193222,0.023530173,0.021937237,0.018136831,0.014190877,0.010568363,0.008142572,0.006759871,0.005660179,0.00475455,0.004746464,0.005013301,0.004989044,0.004641347,0.004552401,0.004649433,0.004722206,0.004738378,0.005021387,0.004940528,0.005069903,0.005207365,0.004964786,0.005546975,0.005223537,0.005441858,0.005514632,0.005902758,0.005757211,0.006096821,0.006315143,0.006104907,0.00599979,0.006161509,0.006258541,0.005846156,0.005692523,0.005781469,0.005732953,0.005474202,0.005304396,0.005263966,0.004940528,0.005199279,0.004778808,0.004511971,0.004301736,0.004010641,0.003937867,0.003420365,0.00312927,0.003177786,0.002700714,0.003024153,0.00283009,0.002910949,0.002490479,0.002369189,0.00208618,0.0022479,0.00220747,0.001875945,0.001819343,0.002142782,0.002191298,0.001908289,0.001762741,0.001010746,0.001358443,0.001406959,0.001318013,0.001536334,0.001326099,0.001220981,0.001423131,0.000913715,0.000727737,0.000816683,0.000808597,0.000857113,0.000743909,0.000396213,0.000679221,0.000404299,0.000153633,0.000549846,0.000638792,0.00062262,0.000477072,0.000388127,0.000371955,0.000452814,0.000477072,0.000468986,0.000468986,0.000444728,0.000412384,0.000380041,0.000363869,0.000347697,0.000339611,0.000331525,0.000323439,0.000323439,0.000331525,0.000339611,0.000363869,0.000355783,0.000274923,0.000396213,0.000452814,0.000363869,0.000105118,0.000234493,0.000598362,0.000428556,0.00066305,0.000323439,0,0.000283009,0.000226407,0.000444728,0.000129376,0.000404299\nSRI-0000717.txt,CC1=CC=C(C=C1)S(=O)(=O)N\\N=C\\C1=CNC2=CC=CC=C12,0.974291998,0.989843752,0.998730469,1,0.992382814,0.975244147,0.947949231,0.912402365,0.869873079,0.821630903,0.770849665,0.719338447,0.668652425,0.619172456,0.571977644,0.527702752,0.487236453,0.450959607,0.419919575,0.393481593,0.372597809,0.356189122,0.344001625,0.335210123,0.329782878,0.326862957,0.325688641,0.325752118,0.327402508,0.329528972,0.332575847,0.336374918,0.341249917,0.347321448,0.353938878,0.36170206,0.370185701,0.378856597,0.387584622,0.396864893,0.405837303,0.415704732,0.42579433,0.437061417,0.449525037,0.462194956,0.473065314,0.481631474,0.48567493,0.485233768,0.47982874,0.470970588,0.459890757,0.448115857,0.437861221,0.429231585,0.423223529,0.419472066,0.417910543,0.418678609,0.421433491,0.426035541,0.431948381,0.43943544,0.448411023,0.458453013,0.469428108,0.481234746,0.49332068,0.505793822,0.517495723,0.529870476,0.542714955,0.55574669,0.568473738,0.580737407,0.592334572,0.602646337,0.61116489,0.618140962,0.623530121,0.627126068,0.62891928,0.628582854,0.626329437,0.621425874,0.613840426,0.603903173,0.591376076,0.577001812,0.560443955,0.542191274,0.523081659,0.502597778,0.480717412,0.457691295,0.433221086,0.407367088,0.380049956,0.351510901,0.322229169,0.292496755,0.263126156,0.234593449,0.207435008,0.181917436,0.158846885,0.138096402,0.11951999,0.103162084,0.089102029,0.076968487,0.066577376,0.057763658,0.050019519,0.043598866,0.038089102,0.033579093,0.029449944,0.025965082,0.023073725,0.020331538,0.018036861,0.016005611,0.014275875,0.012663571,0.011308347,0.010064207,0.00901367,0.008124998,0.007350584,0.006864989,0.006100096,0.005446288,0.005078124,0.00475122,0.004348143,0.004106933,0.003853026,0.003510253,0.003415038,0.00319287,0.00286914,0.002913574,0.002691406,0.002586669,0.002526367,0.002513671,0.002443847,0.002250244,0.002012207,0.001802734,0.001634521,0.001513916,0.001425048,0.001358398,0.001294922,0.001228271,0.001164795,0.001088623,0.001009277,0.000914062,0.000809326,0.000695068,0.000583984,0.000463379,0.000349121,0.000291992,0.000418945,0.000282471,0.000285644,0.000203125,9.2E-05,0,9.52E-05,0.000142822,0.000139648,0.000158691,1.9E-05,0.000161865,7.93E-05\nSRI-1053153-001.txt,CC(C)C[C@H](NC(=O)N1[C@@H](C(C)C)C(=O)Nc2ccccc12)C(O)=O,0.616337372,0.629818945,0.648291569,0.670034192,0.693784708,0.719944697,0.74811258,0.776280463,0.804390977,0.82969044,0.852924641,0.872602001,0.886427785,0.893311992,0.892164624,0.881321997,0.861988848,0.834738859,0.799686769,0.755226261,0.702103125,0.638883152,0.566197393,0.487625637,0.408376933,0.33312107,0.266252467,0.209325807,0.1636663,0.128814998,0.103091009,0.084675754,0.072152233,0.063891184,0.05879687,0.055899766,0.055010556,0.055125293,0.056232503,0.058378081,0.061372711,0.064929552,0.069519023,0.074974758,0.080923861,0.087871174,0.095512644,0.104008904,0.113692689,0.124185369,0.135986048,0.14830878,0.16190509,0.176522557,0.191977603,0.20877507,0.226593694,0.245284318,0.264955941,0.285402038,0.307643765,0.330895176,0.355116114,0.379893524,0.405692092,0.432603607,0.460255175,0.488503373,0.516986782,0.54665198,0.576454863,0.606378218,0.637024416,0.668376245,0.699114232,0.729284272,0.759287943,0.78802951,0.815847446,0.84238033,0.867106109,0.889336362,0.910568406,0.929431135,0.946951443,0.962113911,0.975016063,0.985612006,0.993758318,0.999202579,1,0.996655422,0.988750057,0.97669122,0.960174859,0.939579604,0.91589793,0.89057552,0.862763321,0.833396439,0.802331452,0.770182202,0.735807059,0.69837418,0.658526091,0.613709899,0.565899078,0.514038047,0.460002754,0.40506104,0.350497958,0.298545137,0.250338474,0.206853229,0.168605718,0.135423838,0.107422323,0.084836385,0.066461288,0.05184382,0.039721878,0.030967461,0.023893937,0.018512782,0.014221626,0.011043416,0.008754417,0.006826839,0.005421314,0.004256735,0.003671577,0.002719262,0.002512736,0.002030841,0.001835789,0.001503052,0.001612052,0.001147368,0.000797421,0.000969526,0.000940842,0.000625316,0.000694158,0.000740052,0.000728579,0.000654,0.000602368,0.000579421,0.000522052,0.000424526,0.000338474,0.000269631,0.000206526,0.000166368,0.000131947,0.000109,0.000109,0.000114737,0.000109,0.000109,0.000114737,0.000114737,0.000114737,0.000137684,0.000154895,0.000154895,0.00023521,0.000361421,0.000160632,0.000206526,0.000154895,0.000149158,0.000114737,0.000212263,0.000275368,6.88E-05,0.000493368,0,0.000109,0.000149158,1.15E-05\nSRI-1053225-001.txt,NC(=O)C1CCN(CC1)C(=O)CCn1nnc2ccccc2c1=O,1,0.994703897,0.991577282,0.988897326,0.985962136,0.980091757,0.970456677,0.955397878,0.93485155,0.909072927,0.881188624,0.85005009,0.816295408,0.777499856,0.732514883,0.68044717,0.622572885,0.561699602,0.501783447,0.446333884,0.398222296,0.358022958,0.325289212,0.29906393,0.27873455,0.262648434,0.249759123,0.238701115,0.228638519,0.219424575,0.210095777,0.201328492,0.193537478,0.186301597,0.179876084,0.174401317,0.16900312,0.16320293,0.15762607,0.151659977,0.146325589,0.141865377,0.138279341,0.136754318,0.136728795,0.138266579,0.141788807,0.146638251,0.152387394,0.159457373,0.166942107,0.175141495,0.183417454,0.192191119,0.201143448,0.210223393,0.219143818,0.227879198,0.236691148,0.245464813,0.253472776,0.26080437,0.267465974,0.273240641,0.278045419,0.281867546,0.284783594,0.286506422,0.287399741,0.287725164,0.286838226,0.285191968,0.282684295,0.27948749,0.275639839,0.271913425,0.268180629,0.264773257,0.261812543,0.258915639,0.256975861,0.254468188,0.251756328,0.248119245,0.242804,0.236072206,0.227943006,0.219067248,0.209649117,0.200237368,0.191699794,0.184444771,0.178676485,0.174899023,0.172570014,0.170413287,0.16742067,0.161971427,0.153733753,0.141973851,0.127610564,0.112283769,0.096121083,0.080781526,0.067171179,0.054919952,0.044672312,0.036211308,0.0292179,0.023538946,0.019391395,0.015907452,0.012838265,0.010649634,0.008990614,0.007101883,0.005966092,0.004945157,0.004249644,0.003483943,0.002750145,0.002896905,0.002456626,0.00218225,0.002201392,0.001837684,0.001391025,0.001250646,0.001416548,0.001065601,0.000969889,0.001218742,0.000918842,0.000893319,0.000714655,0.000772083,0.000778463,0.000721036,0.000631704,0.00037647,0.000542372,0.00045304,0.000344566,0.000504087,0.000504087,0.000504087,0.000446659,0.000350947,0.000242472,0.000178664,0.000178664,0.000172283,0.000146759,0.000127617,0.000108474,0.000102094,0.000108474,0.000133998,0.000165902,0.000197806,0.00022333,0.000248853,0.000261615,0.000261615,0.000242472,0.000293519,0.000465802,0.00037647,0.000319042,0.00022333,0.000280757,0.000229711,5.74E-05,0.000587038,0.000446659,0.000280757,0.000389232,0.000185045,0.000325423,0,0.000146759\nSRI-1053235-001.txt,OC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)c1ccc(F)cc1,0.993559675,1,0.998130955,0.984552229,0.959871824,0.922986329,0.874211004,0.816270602,0.752610471,0.686067957,0.622160121,0.563724309,0.512562011,0.468087742,0.430594244,0.399000624,0.37186569,0.348694033,0.328202091,0.30964675,0.292825343,0.2769272,0.262064912,0.247743072,0.234276938,0.221081029,0.20901105,0.197571592,0.186942805,0.177311592,0.168592384,0.161163492,0.154709656,0.149406522,0.145141496,0.142024919,0.13992168,0.138883572,0.13851877,0.138653882,0.139448789,0.140558957,0.142455025,0.144709138,0.14722672,0.14985239,0.152333942,0.154608322,0.156864688,0.158832815,0.160891017,0.162762314,0.164543536,0.165842861,0.166432848,0.166304492,0.16562443,0.16497139,0.164710174,0.165074976,0.165831601,0.166223425,0.165944194,0.164496247,0.161420204,0.156445842,0.149881665,0.143353518,0.13888132,0.137025786,0.13628042,0.133866424,0.12705229,0.115414669,0.100851879,0.085867991,0.072201443,0.060322872,0.050552044,0.04217737,0.035059235,0.028963446,0.023944046,0.019847909,0.016283212,0.013270221,0.010853974,0.008948899,0.007361336,0.006167849,0.005159015,0.004271782,0.003542178,0.003172873,0.002772042,0.00228564,0.002089728,0.001905075,0.001713667,0.001414169,0.001346613,0.001373636,0.001222761,0.00100433,0.000828685,0.000761129,0.000668803,0.000664299,0.00061701,0.000594491,0.000513424,0.000601247,0.000567469,0.000497661,0.000335527,0.000346787,0.000409839,0.00032652,0.000396328,0.000353542,0.00032652,0.000396328,0.000439113,0.000371557,0.000522432,0.000499913,0.000335527,0.00035129,0.000418846,0.000414343,0.000486402,0.000317513,0.000315261,0.000288238,0.000346787,0.000292742,0.000373809,0.000310757,0.000317513,0.000247705,0.000249957,0.000225186,0.000114845,0.000141867,0.000204919,0.000211675,0.000225186,0.000211675,0.000171141,0.000114845,9.01E-05,8.11E-05,6.98E-05,5.4E-05,4.73E-05,6.53E-05,7.88E-05,9.01E-05,9.91E-05,0.000105838,0.000114845,0.000123852,0.000121601,0.000114845,0.000110341,0.000135112,0.000159882,0.00015763,0.000139615,3.38E-05,6.08E-05,0.000159882,5.85E-05,0.000121601,0.000204919,0.000153127,0.000162134,6.76E-05,0,4.5E-05,0.000114845\nSRI-0000515.txt,CCCCCCCN(CCCCCCC)CC(O)C1=CC2=C(C=CN=C2)C2=C1C=CC(=C2)C(F)(F)F,0.565758417,0.556927474,0.535251521,0.503138999,0.466209598,0.429280198,0.400378928,0.383519854,0.380308601,0.389139545,0.408407058,0.435702702,0.467815225,0.503299562,0.542235995,0.583901993,0.627575023,0.673014242,0.719497118,0.766541963,0.809813587,0.849151427,0.882628731,0.910325782,0.932563703,0.950065028,0.96620157,0.980411361,0.992292995,0.999759156,1,0.989162024,0.967293396,0.932796519,0.888786307,0.837205568,0.780085419,0.722202598,0.666856666,0.61582184,0.569852764,0.527408038,0.487733016,0.451823188,0.419445738,0.391459675,0.367608099,0.347658194,0.330847289,0.316468907,0.304338402,0.293540566,0.28343315,0.274826994,0.266533935,0.259003548,0.251384853,0.243437003,0.234790707,0.225983847,0.217152904,0.20956632,0.20377001,0.199763973,0.19934651,0.200775517,0.204179445,0.207695766,0.20969477,0.209486039,0.206419293,0.201658612,0.196303849,0.192538655,0.191029367,0.192185418,0.195790048,0.201136783,0.206178449,0.208338016,0.205327467,0.195926527,0.181178851,0.162079928,0.140323694,0.118744079,0.098055587,0.079912012,0.06454617,0.05204637,0.041706138,0.034199836,0.028820989,0.024678473,0.022149612,0.020744689,0.020487789,0.020351311,0.020816943,0.021507362,0.021635812,0.021844543,0.021122012,0.020110467,0.019331738,0.019187232,0.019235401,0.019468217,0.020760746,0.022141584,0.02409242,0.026918322,0.029832533,0.032433648,0.03444068,0.035147156,0.034946452,0.032971532,0.030193799,0.027608741,0.025690018,0.024228898,0.023674957,0.024317207,0.025401005,0.0267979,0.029752252,0.032578154,0.036335319,0.038960518,0.041393041,0.04264543,0.041425154,0.038254042,0.034256033,0.028780848,0.024148617,0.020391452,0.016947384,0.01477176,0.013415006,0.012491771,0.012234871,0.012307124,0.012202758,0.012090365,0.01189769,0.011696986,0.011343748,0.010573048,0.009633757,0.00875869,0.007996018,0.007417993,0.006976445,0.006591095,0.006197717,0.005788282,0.005354763,0.00489716,0.004391387,0.003797306,0.003130971,0.002400411,0.001661823,0.001107882,0.000923235,0.000939291,0.000594082,0.000313097,0.000321125,0.000248872,0.000160563,0.000417463,0.000329153,0.000272956,0.000272956,0.000401407,0,0.000104366,0.000200703\nSRI-1052922-001.txt,COc1ccc(CNC(=O)C[C@@H]2NC(=O)N(CCc3c[nH]c4ccccc34)C2=O)cc1,0.97303281,0.988959349,0.998439432,1,0.992868061,0.975439292,0.94520512,0.901421721,0.84041374,0.760547686,0.670997363,0.579040557,0.49030698,0.409419994,0.338873591,0.278857373,0.22934217,0.18930705,0.157658157,0.132747416,0.113889343,0.099669218,0.088993186,0.081132009,0.075604392,0.071768604,0.069289198,0.067859893,0.067422351,0.067798637,0.068984377,0.070871643,0.073386052,0.076479476,0.080073157,0.084164178,0.088803584,0.093905328,0.099343978,0.105150165,0.111256796,0.117674083,0.124321809,0.131065795,0.138197734,0.145229039,0.152474739,0.159466665,0.166436714,0.173139862,0.179344212,0.185347292,0.191045551,0.195967902,0.200322906,0.203407579,0.205165041,0.20606492,0.206438289,0.207185028,0.208399937,0.209317317,0.209347945,0.207342543,0.202885446,0.194955721,0.184882039,0.17421184,0.165325356,0.159527921,0.156008623,0.152213672,0.145440518,0.134389658,0.11998139,0.104530313,0.089592619,0.076367174,0.064983782,0.055144914,0.04662159,0.039181913,0.032964437,0.027624962,0.023068688,0.019101638,0.015909038,0.013267741,0.011110657,0.009338611,0.007894721,0.006866497,0.006077462,0.005339474,0.00477942,0.00444543,0.004217908,0.003958299,0.003841621,0.003808076,0.003624309,0.003558677,0.003512006,0.003455126,0.003420122,0.003287401,0.003201351,0.00313572,0.003019042,0.003004457,0.002861527,0.002765267,0.002650048,0.002545038,0.002492533,0.002259177,0.002106037,0.001898934,0.00180705,0.001636408,0.001470142,0.001314085,0.001127401,0.001136151,0.000894045,0.00083133,0.000691317,0.000638812,0.000479838,0.000389413,0.000374828,0.000298987,0.000131263,0.000141472,0.000211479,0.00015314,0.000247941,0.000112303,9.48E-05,0.000138555,9.92E-05,0.000102093,0.000103552,0.000110844,9.92E-05,0.000106469,0.000102093,9.63E-05,8.9E-05,7.15E-05,5.54E-05,4.67E-05,4.08E-05,4.08E-05,4.52E-05,5.1E-05,5.83E-05,6.42E-05,6.85E-05,7.15E-05,7.44E-05,7.73E-05,7.73E-05,7.44E-05,6.71E-05,5.98E-05,8.17E-05,7.73E-05,0,1.17E-05,7.73E-05,1.17E-05,6.71E-05,4.67E-05,0.00012397,8.46E-05,0.000115219,6.85E-05,7.29E-06,3.21E-05,9.77E-05\nSRI-0000267.txt,COC(C1=NC2=C(N1)C=CC(C)=C2)C1=CC=CC=C1,1,0.992009081,0.981777718,0.969903362,0.953473436,0.932263894,0.906424101,0.874385745,0.836820959,0.793879106,0.746232319,0.696643814,0.644740183,0.592313782,0.542202506,0.494481038,0.451539185,0.41248077,0.378201969,0.348404057,0.323460441,0.302923033,0.286194381,0.273125121,0.263341847,0.255552568,0.250070947,0.245492972,0.242206987,0.239802243,0.238144314,0.237285477,0.237292946,0.237755971,0.239107706,0.241594599,0.245627399,0.250317396,0.256052934,0.262057326,0.269099789,0.277777778,0.288509507,0.301130678,0.31523801,0.331077953,0.349591492,0.370584457,0.393773058,0.416528506,0.437155532,0.456251587,0.476520142,0.500642261,0.528550731,0.559222416,0.58901286,0.614621141,0.632245971,0.637570761,0.626607519,0.605651895,0.585129423,0.577220654,0.586033069,0.602313632,0.604666099,0.577332676,0.519633762,0.441098714,0.355424116,0.274402175,0.204985736,0.149549671,0.107578677,0.076496244,0.054009649,0.038543114,0.02811011,0.020432854,0.015115532,0.011680184,0.009081268,0.007333722,0.005780347,0.00463772,0.003943182,0.003554839,0.003039536,0.002628788,0.002412212,0.001971591,0.001889442,0.001874505,0.001598184,0.001680333,0.001441353,0.001642993,0.001433884,0.001060477,0.001105286,0.001232244,0.001142627,0.000866305,0.001045541,0.00080656,0.000911114,0.000731879,0.000836433,0.000911114,0.000679601,0.000754283,0.000955923,0.000530239,0.000619856,0.000881242,0.000843901,0.000799092,0.00068707,0.000866305,0.000821496,0.000836433,0.000746815,0.000903646,0.000575047,0.000694538,0.000560111,0.00068707,0.000664665,0.000776687,0.000418216,0.000545175,0.000776687,0.000410748,0.000642261,0.000463025,0.000642261,0.000552643,0.000261385,0.00068707,0.000731879,0.000552643,0.000343535,0.000530239,0.000500366,0.000530239,0.000477961,0.000373407,0.000253917,0.000231513,0.000216576,0.000194172,0.00020164,0.000216576,0.000231513,0.000231513,0.000231513,0.000246449,0.000261385,0.00028379,0.000291258,0.000298726,0.00032113,0.00032113,0.000246449,0.000134427,0.000156831,0.00048543,0.000425684,0.000186704,0.000112022,0.000253917,0.000351003,0.000156831,0.000418216,0.000358471,9.71E-05,0.00040328,0.000433153,0,6.72E-05\nSRI-1052796-001.txt,COc1cc2oc(=O)c(CC(=O)N[C@H](Cc3c[nH]c4ccccc34)C(O)=O)c(C)c2cc1OC,0.986126685,0.995420899,0.998730546,1,0.993002893,0.976681346,0.949282305,0.919571046,0.880837598,0.835756881,0.786580666,0.737192875,0.689694152,0.645006362,0.604036258,0.566859402,0.532161003,0.499442347,0.468265171,0.437677383,0.407966124,0.379569655,0.352639103,0.327476719,0.304762567,0.284405971,0.266981209,0.252231367,0.240322683,0.231424418,0.225015188,0.220940846,0.218409496,0.216831746,0.215955219,0.215515444,0.215717952,0.216168305,0.2172821,0.218488081,0.219615476,0.219916216,0.219373676,0.217603997,0.21518599,0.212736247,0.211170587,0.211116182,0.212795186,0.216268048,0.22088493,0.226881587,0.233794064,0.240960432,0.248067861,0.254960692,0.261554295,0.268323203,0.275385294,0.282914363,0.29059758,0.29787427,0.303967647,0.308459095,0.310738066,0.310488709,0.308125108,0.305160027,0.303411505,0.303592856,0.304235139,0.302939994,0.296777099,0.285617997,0.271481724,0.25623468,0.241493905,0.227959112,0.215838852,0.204835409,0.195021324,0.186110968,0.178894729,0.17264267,0.16771447,0.16434135,0.16250971,0.161809999,0.162480996,0.164551414,0.167637396,0.171812991,0.177022285,0.182852704,0.189627657,0.196837851,0.204750779,0.213035475,0.221483387,0.230386186,0.239548921,0.248781173,0.25815095,0.267819955,0.277342369,0.287023464,0.296414398,0.305951924,0.315052697,0.323946429,0.332474437,0.34082714,0.348412125,0.355542223,0.362342867,0.368377306,0.374180522,0.37951525,0.384020299,0.388381779,0.39216596,0.395415157,0.397955575,0.399639112,0.400420431,0.39993683,0.398697601,0.397027665,0.394577922,0.39170805,0.388434673,0.383838949,0.37823824,0.371411904,0.363831453,0.355777979,0.347449456,0.338629776,0.32953807,0.320088197,0.310239352,0.300101859,0.289752789,0.278809797,0.267369601,0.255817573,0.247245739,0.242053069,0.233088309,0.213795636,0.192373606,0.173609873,0.159058005,0.148376459,0.140047937,0.132624656,0.125175683,0.117235553,0.108752883,0.099621884,0.089782107,0.078973617,0.066851846,0.053824834,0.041039622,0.031113704,0.024695407,0.020148042,0.016536145,0.013463765,0.010905211,0.008748651,0.00692759,0.005372509,0.004140837,0.003025531,0.002147492,0.001400933,0.000847814,0.000394437,0\nSRI-1053082-001.txt,COc1ccc(OCC(=O)NC(Cc2c[nH]c3ccccc23)C(O)=O)cc1,0.994619235,1,0.99533667,0.979166782,0.948565405,0.903504948,0.844482094,0.773814714,0.696304104,0.615095943,0.535433027,0.461123283,0.393380831,0.333557762,0.282178354,0.238387205,0.201687629,0.171334595,0.146362327,0.125860233,0.10935922,0.096307416,0.086042572,0.077930033,0.071776646,0.067196097,0.064215981,0.062449986,0.061622176,0.061696679,0.062325815,0.063780001,0.065766745,0.068225341,0.071108879,0.074544291,0.078330142,0.082491267,0.087041462,0.091942097,0.096878604,0.102008267,0.10744146,0.113197499,0.118914907,0.124778561,0.130835371,0.137054983,0.143365655,0.149538358,0.15545444,0.161232554,0.166759565,0.172024437,0.176616023,0.180614345,0.184107704,0.187496206,0.1913538,0.195572872,0.199725719,0.203279783,0.205705267,0.206825569,0.206008797,0.202912787,0.197956965,0.19292388,0.189469153,0.187763864,0.18643109,0.18286047,0.174151909,0.160349557,0.143760244,0.126881198,0.110995524,0.09676547,0.084185518,0.072300925,0.061340721,0.051197289,0.041815443,0.033598049,0.026462326,0.020744919,0.015993289,0.012386797,0.009519815,0.007436493,0.005836061,0.004679886,0.00387967,0.003341593,0.002886298,0.002497227,0.002392371,0.00222129,0.001801866,0.001407277,0.001145137,0.000946463,0.00091335,0.00091611,0.000927147,0.000761585,0.000731232,0.000673285,0.000767104,0.000687082,0.000692601,0.000728473,0.000670526,0.000601542,0.000885757,0.000891275,0.000907832,0.000990613,0.001056837,0.001056837,0.001120303,0.001034763,0.000971297,0.000869201,0.000711917,0.000656729,0.00060982,0.000532558,0.000607061,0.000430461,0.000482889,0.000463574,0.000344921,0.000466333,0.00048013,0.000474611,0.000518761,0.000513242,0.000549114,0.000413905,0.000640173,0.000557392,0.000510483,0.000794698,0.000689842,0.000637414,0.000615339,0.000587745,0.000546355,0.00052428,0.000513242,0.000510483,0.00052152,0.000532558,0.000543595,0.000549114,0.000551873,0.000549114,0.000543595,0.000532558,0.000516002,0.000496686,0.000469092,0.000449777,0.000444258,0.000433221,0.000344921,0.00025938,0.000344921,0.000424942,0.000361477,0.000342161,0.000474611,0.000369755,0.000107615,0.000237306,0.000292493,6.9E-05,0,0.000124172,0.000118653\nSRI-1053092-001.txt,CSCC[C@H](NC(=O)CCCn1nnc2ccccc2c1=O)C(O)=O,0.999020742,0.997952461,0.999821953,1,0.999376836,0.993857384,0.984420903,0.968218642,0.946140835,0.917742366,0.886406125,0.853289415,0.816789816,0.776106116,0.729101754,0.674352355,0.61372741,0.551589068,0.492299475,0.437995193,0.392148135,0.354046114,0.32342206,0.299296715,0.280601798,0.265734888,0.253805751,0.243238672,0.233374878,0.223795958,0.214768984,0.206267248,0.1984777,0.191792041,0.18612125,0.180281314,0.174877593,0.169598504,0.163482596,0.157179738,0.151695896,0.147307042,0.144493902,0.143728301,0.144769874,0.147707647,0.152238939,0.15806107,0.16509392,0.172945785,0.181082525,0.190127303,0.199109766,0.208190154,0.217706757,0.227267871,0.236419478,0.245615597,0.254580255,0.263251135,0.271832992,0.279186326,0.285498086,0.291872162,0.296626013,0.299955488,0.302332413,0.303703374,0.304175198,0.304086175,0.302412534,0.300169144,0.29661711,0.292611057,0.287331968,0.282711653,0.277895487,0.272892371,0.269500579,0.266242322,0.263153209,0.260437995,0.256814742,0.252096501,0.245998398,0.238467017,0.229867355,0.220386362,0.210558177,0.201370961,0.192878127,0.186512953,0.181830321,0.178331701,0.177076471,0.175189175,0.171307754,0.16509392,0.155265735,0.14205466,0.126671415,0.110059646,0.09425799,0.079026084,0.065725986,0.054099528,0.043950859,0.035858631,0.029796136,0.024152052,0.019718686,0.016380308,0.013754117,0.011386095,0.009463189,0.007771744,0.006391881,0.005973471,0.004967506,0.004237514,0.003676667,0.003142526,0.003017894,0.002572777,0.002323511,0.002261195,0.001949613,0.001620226,0.001602421,0.00125523,0.001424375,0.001228523,0.001219621,0.001299742,0.0011395,0.001005965,0.001130597,0.0011395,0.000872429,0.000738894,0.000801211,0.000632066,0.001094988,0.001023769,0.000872429,0.000783406,0.000729992,0.00068548,0.000658773,0.000649871,0.000605359,0.00056975,0.000551945,0.00053414,0.000507433,0.000498531,0.000480726,0.000471824,0.000462922,0.000445117,0.000427312,0.000409508,0.000400605,0.000400605,0.00041841,0.000409508,0.000507433,0.000498531,0.000391703,0.000649871,0.000471824,0.000543043,0.000462922,0,0.00030268,0.000658773,0.00056975,0.000489629,0.000471824,0.000738894,0.000391703\nSRI-0000299.txt,NC1=CC=C(C=C1)C(=O)OC1CCCC1,0.465677287,0.460949279,0.452018597,0.439935909,0.424175882,0.404738515,0.382149142,0.356933099,0.328039715,0.298095663,0.267626277,0.237314491,0.207948307,0.182101862,0.158356754,0.13834152,0.122003625,0.109185469,0.099939587,0.093425442,0.089853169,0.088592367,0.089327835,0.091849439,0.095894513,0.101305456,0.107662,0.115594547,0.124735363,0.135031914,0.146799401,0.160074597,0.174673636,0.190748864,0.208058627,0.227296367,0.247779149,0.2694702,0.292978908,0.318089885,0.34437761,0.372136272,0.400945602,0.43101048,0.462367681,0.494265977,0.526862967,0.559318116,0.592577027,0.625652071,0.658143994,0.690073809,0.721473037,0.750870742,0.778787003,0.805032702,0.830143679,0.854314307,0.876441386,0.896871635,0.914953639,0.930887027,0.944582491,0.956854299,0.967765491,0.977326574,0.984943921,0.991437052,0.995965433,0.998860025,1,0.998660398,0.994636337,0.988689554,0.978776497,0.966257782,0.949452339,0.929547425,0.906143784,0.878810643,0.848388537,0.814310105,0.776869533,0.737028184,0.694234457,0.649470726,0.603141499,0.556428778,0.508844002,0.462031468,0.415644454,0.37097003,0.32883297,0.288545087,0.251067742,0.216705629,0.185537548,0.157474193,0.13268367,0.110835019,0.091896719,0.075789971,0.062084001,0.050269234,0.040708151,0.032807124,0.026413806,0.021160463,0.016910509,0.01337501,0.010659032,0.008620735,0.006939665,0.00565785,0.004738515,0.003808673,0.003115232,0.002726485,0.002096084,0.001843923,0.001512963,0.001597016,0.001166242,0.001381629,0.000872055,0.001129469,0.001003388,0.000935095,0.000798508,0.000478054,0.000577868,0.000688188,0.000436027,0.000462294,0.000514828,0.000535841,0.000325707,0.000346721,0.000362481,0.000288934,0.000520081,0.000378241,0.000162854,0.000346721,0.000288934,0.00025216,0.00025216,0.00020488,0.000178614,0.00017336,0.0001576,0.00014184,0.00012608,0.000115574,0.000105067,0.000105067,0.00011032,0.000115574,0.00012608,0.000131334,0.000131334,0.000147094,0.0001576,0.000131334,6.83E-05,0,0.000120827,0.000231147,0.00011032,2.63E-05,6.83E-05,0.00022064,7.88E-05,3.15E-05,7.35E-05,5.78E-05,0.00022064,0.000210134,0.000115574,0.000105067,0.00018912\nSRI-004719.txt,CC1=C[N+](C[N+]2=CC(C)=CC=C2)=CC=C1,0.639755076,0.731191434,0.809678772,0.859821765,0.901622469,0.945909025,0.977153905,0.994875758,1,0.991535679,0.969625168,0.934710268,0.888167239,0.832296621,0.769960531,0.704460633,0.63853136,0.57454105,0.513940536,0.471215547,0.431423861,0.382288768,0.337649674,0.297238785,0.260701304,0.227777345,0.198194595,0.1718491,0.148845944,0.129183997,0.112950264,0.100163953,0.090523373,0.085151676,0.081445499,0.078304288,0.076989048,0.077105431,0.078246662,0.080003706,0.082117809,0.08425338,0.086278219,0.087950518,0.089168585,0.089793437,0.089664625,0.089131297,0.087978766,0.085740371,0.082722323,0.079035354,0.074807149,0.070172168,0.065234365,0.059942893,0.054396057,0.048547529,0.042563409,0.036384941,0.031839224,0.0274178,0.02194554,0.017151238,0.013094782,0.009840578,0.007402185,0.005528757,0.004236115,0.003292622,0.00266664,0.002206757,0.001871167,0.001728796,0.001558176,0.001378517,0.001258744,0.001180779,0.001106203,0.00100451,0.000916375,0.00083502,0.000768354,0.000684739,0.000618073,0.000592084,0.000484741,0.000463272,0.000388697,0.00032994,0.000292652,0.000244065,0.000198868,0.00017288,0.000143501,0.000116383,7.01E-05,9.49E-05,5.54E-05,6.21E-05,4.86E-05,5.08E-05,3.05E-05,3.05E-05,2.94E-05,9.94E-05,8.81E-05,0,6.33E-05,0.000276833,0.000212427,0.000183049,0.000255365,0.000209037,0.000298302,0.00033785,0.000401126,0.000479091,0.000458752,0.000543497,0.000637282,0.000711857,0.000738976,0.000742365,0.000840669,0.000909595,0.000944623,0.001025978,0.001021459,0.001075695,0.000983041,0.001070046,0.001080215,0.001062136,0.001070046,0.001007899,0.001073435,0.001039537,0.000975131,0.00099208,0.000933324,0.000937844,0.000920895,0.000871178,0.00083615,0.00083728,0.000768354,0.000744625,0.000724286,0.000689259,0.000714117,0.000620333,0.000610163,0.000622593,0.000529938,0.000550277,0.000553667,0.000415815,0.000429374,0.000454233,0.000418075,0.000468922,0.000431634,0.000387567,0.000431634,0.00032881,0.000364968,0.000300562,0.000306212,0.00032542,0.000291522,0.000250845,0.000263274,0.000227116,0.000204518,0.000246325,0.00016384,0.000215817,0.000201128,0.000125422,0.000214687\nSRI-1053278-001.txt,OC(=O)[C@H](Cc1ccccc1)NC(=O)c1cc2ccccc2[nH]1,1,0.975147653,0.949666601,0.92266926,0.896115711,0.868859492,0.8428237,0.818452128,0.795522879,0.775034486,0.75728281,0.741417249,0.72640229,0.711683192,0.696002544,0.680100001,0.662644186,0.643043377,0.620742834,0.592820926,0.560350152,0.523626372,0.483870013,0.443374002,0.404986002,0.368336187,0.333424557,0.298106118,0.261012511,0.222735459,0.185900731,0.153932921,0.129154539,0.111554492,0.100770349,0.095566889,0.094080186,0.096058758,0.100566944,0.106902074,0.114379967,0.122922961,0.132427505,0.143285613,0.155212521,0.168311779,0.182365189,0.19737645,0.213445415,0.230908627,0.249126285,0.268442327,0.288989893,0.310521197,0.332548068,0.355366369,0.378720918,0.402626508,0.426724409,0.451114472,0.475859569,0.500734106,0.525904503,0.55041661,0.573989356,0.596889019,0.617895169,0.638032227,0.655843075,0.671886153,0.686453622,0.698728166,0.709416155,0.717470978,0.723968831,0.727474787,0.728273613,0.725903024,0.719734317,0.710370307,0.697300636,0.680847051,0.662000688,0.641172054,0.618594141,0.594840179,0.569821411,0.54380411,0.516743899,0.487719908,0.457183327,0.425267292,0.392212192,0.357918172,0.323313498,0.288956608,0.255339371,0.223593457,0.193408211,0.165804354,0.140815172,0.118503534,0.098799173,0.081535668,0.066868345,0.054612292,0.044323717,0.035717852,0.028687448,0.023169636,0.018583786,0.014952089,0.012074838,0.009756025,0.007906892,0.006235276,0.005077719,0.004230816,0.003568827,0.002880949,0.00236689,0.002215261,0.001871323,0.001571763,0.001745581,0.001549573,0.001042911,0.001050308,0.001157557,0.000850601,0.001005928,0.000872791,0.000691576,0.000643498,0.000691576,0.000676783,0.000728558,0.000403111,0.000425301,0.000318051,0.000225594,0.000477076,0.000414206,0.000318051,0.000288465,0.000306956,0.000314353,0.00027737,0.000199706,0.000110948,6.66E-05,4.44E-05,2.96E-05,2.59E-05,1.85E-05,3.7E-05,5.92E-05,7.77E-05,8.88E-05,9.62E-05,9.99E-05,0.00010725,9.62E-05,7.4E-05,5.55E-05,8.14E-05,0.000177517,0.000306956,0.000177517,8.14E-05,0.000159025,0,0.000151629,0.000140534,0.00034024,0.000110948,0.000207103,0.000118345,0.000140534,7.4E-05,0.000181215\nSRI-1052772-001.txt,CSCC[C@H](NC(=O)COc1cc(C)cc2oc(=O)c3CCCc3c12)C(=O)NCCC(O)=O,1,0.909640036,0.826068136,0.750415646,0.684994442,0.627295891,0.577319993,0.535411071,0.499257248,0.467874745,0.441952208,0.420161536,0.403781641,0.391386044,0.382236913,0.37667857,0.373678049,0.373038594,0.374661826,0.378596937,0.383319069,0.389615245,0.396206554,0.402109219,0.406634596,0.410028628,0.411159972,0.409635117,0.406142707,0.401194306,0.394829265,0.387864121,0.379403634,0.367568791,0.352059538,0.331572372,0.306018751,0.27511338,0.239402257,0.203061516,0.170690317,0.145992582,0.129740578,0.12084231,0.118284489,0.120197936,0.125520172,0.132903423,0.142323092,0.153124969,0.164836841,0.177630867,0.191566075,0.206376846,0.221856585,0.237867564,0.254837726,0.272668693,0.291021063,0.310066995,0.329993409,0.350229712,0.370810338,0.391863176,0.413452174,0.435779004,0.458277996,0.481195093,0.504003974,0.526621019,0.54930201,0.571928893,0.593842537,0.615579101,0.636725398,0.656946945,0.677365247,0.697075229,0.715850623,0.734050507,0.751409261,0.767090675,0.781232476,0.792885321,0.803008392,0.811095043,0.817317435,0.821557517,0.824321931,0.825925489,0.826515755,0.825817273,0.824602308,0.822531456,0.81884721,0.813200327,0.805836752,0.795261144,0.782285118,0.766633218,0.747749609,0.726381961,0.703809187,0.68044939,0.65621895,0.632126238,0.608604118,0.585529617,0.563522514,0.540802172,0.517894913,0.494879438,0.469852138,0.443339334,0.414239196,0.383274799,0.351243003,0.31822743,0.285502071,0.253121034,0.222687877,0.194158329,0.167911145,0.144433295,0.123124674,0.10465917,0.088677705,0.074427687,0.062455115,0.052543557,0.044225718,0.036926089,0.030836506,0.02551427,0.021077433,0.017624374,0.014422178,0.012110301,0.010049287,0.008106327,0.006792984,0.005622288,0.004702456,0.003944948,0.003266141,0.002759496,0.002587335,0.002543065,0.002410255,0.002036419,0.00159372,0.001210046,0.000983778,0.000836211,0.000737833,0.000673888,0.00061978,0.000580429,0.000541078,0.000506645,0.000472213,0.000447619,0.000418105,0.00039843,0.000368917,0.000378754,0.000359079,0.000383673,0.000368917,0.000226269,0.000457457,0.000339403,4.43E-05,0.000393511,0.000482051,0.000236107,2.95E-05,0.000137729,0,0.000167242,0.000236107\nSRI-1053300-001.txt,CC(C)C(NS(=O)(=O)c1ccc(cc1)[N+]([O-])=O)C(O)=O,1,0.963268448,0.925437149,0.887275927,0.847795007,0.80578467,0.763004509,0.7195645,0.677774112,0.638733091,0.605410756,0.573518091,0.545364566,0.51787089,0.49356648,0.471681513,0.45056637,0.432200594,0.414604641,0.39821841,0.383481799,0.369405037,0.356428022,0.344550753,0.333333333,0.322885736,0.313207962,0.304190036,0.295831959,0.288188717,0.281315297,0.275013747,0.269273067,0.26465413,0.260002199,0.255779171,0.251765094,0.248762785,0.246244364,0.243758935,0.241526449,0.239403937,0.237545365,0.235367865,0.233509293,0.231243814,0.229308259,0.228307489,0.226613879,0.225008248,0.222863741,0.220587265,0.217705928,0.215176509,0.213119982,0.211195425,0.208918949,0.205938634,0.202760365,0.198735291,0.194688222,0.189992302,0.185791268,0.181579237,0.177983064,0.172924227,0.168547234,0.163928296,0.159562301,0.155108325,0.150775322,0.146134389,0.141658419,0.137809304,0.133234356,0.129022325,0.124623337,0.120323326,0.116023315,0.111811283,0.107676234,0.104003079,0.100274937,0.096282855,0.09247773,0.089816342,0.08591224,0.082382052,0.079236776,0.076542395,0.073540086,0.070581766,0.067645442,0.065665897,0.063774332,0.061475861,0.060167162,0.057219839,0.055064335,0.052710876,0.051116243,0.049257671,0.047355108,0.046420323,0.0447817,0.043385021,0.042582206,0.041471462,0.040602661,0.039326955,0.038865061,0.038491147,0.037633344,0.037017486,0.036687562,0.035312878,0.035037941,0.034081161,0.033971187,0.032794457,0.032255581,0.03178269,0.031243814,0.030561971,0.030397009,0.029352249,0.028340482,0.027735621,0.027614649,0.026525899,0.025690091,0.024832289,0.024381392,0.023853514,0.022555812,0.021884966,0.021148136,0.020224348,0.01965248,0.019036622,0.017936875,0.017452986,0.016166282,0.015561421,0.014879578,0.014285714,0.013834818,0.013449907,0.012867041,0.011822281,0.010832509,0.009930716,0.009193885,0.008666007,0.008281095,0.008028154,0.007797207,0.007533267,0.007247333,0.006928406,0.006543495,0.006103596,0.005575718,0.004948862,0.004234026,0.003629165,0.003068294,0.002760365,0.002760365,0.001935555,0.00204553,0.001770593,0.001308699,0.000934785,0.001231717,0.000802815,0.000681843,0.00017596,0.000285934,0,0.000494886\nSRI-1053268-001.txt,CC(=O)Nc1ccc(cc1)S(=O)(=O)N1CCCC1C(O)=O,0.188175916,0.166960551,0.152472008,0.14331716,0.138699932,0.137545625,0.138859147,0.142162853,0.147496547,0.154621407,0.163418022,0.17320973,0.184752799,0.197768605,0.212137737,0.228417445,0.245931068,0.265116446,0.286053186,0.308860699,0.333459378,0.359610401,0.387313768,0.416943634,0.448225353,0.480936024,0.514697512,0.550082991,0.586141152,0.622975485,0.660096405,0.697376539,0.734003893,0.76990682,0.804329049,0.837513384,0.868842867,0.897015917,0.923385861,0.945811259,0.964327935,0.979688178,0.991175522,0.998021757,1,0.996147003,0.986757313,0.97183093,0.952203731,0.928671791,0.901342578,0.871625145,0.840606131,0.808022831,0.775435552,0.742840312,0.710308757,0.676073605,0.639732838,0.600347088,0.556821755,0.510167852,0.459991323,0.407912177,0.355375289,0.302754813,0.252231992,0.204714349,0.162239833,0.125381618,0.094744719,0.07047641,0.051788579,0.038167757,0.027914327,0.020789466,0.015845848,0.012112262,0.009532983,0.007566681,0.006185493,0.005106813,0.004350543,0.003892801,0.003196236,0.002861885,0.002487731,0.002221046,0.002026008,0.001862813,0.001719519,0.001580206,0.001385168,0.001289639,0.001285659,0.001233914,0.000991112,0.001018974,0.000895583,0.000927426,0.000843838,0.00086772,0.00085976,0.000581134,0.00076025,0.000672682,0.000748309,0.000732388,0.000656761,0.000624918,0.000664722,0.000724427,0.000624918,0.000632879,0.000668702,0.000688604,0.000593075,0.000330371,0.000469684,0.000425899,0.000409978,0.000616957,0.000851799,0.000668702,0.000776172,0.000632879,0.000382115,0.000529389,0.000692584,0.000616957,0.000481625,0.000569193,0.000640839,0.000553271,0.000593075,0.000585114,0.000589095,0.000390076,0.000573173,0.000481625,0.000417939,0.000549291,0.000222901,0.000370174,0.00032241,0.000338331,0.000330371,0.000278626,0.00021096,0.000131352,9.55E-05,7.56E-05,5.17E-05,2.39E-05,7.96E-06,0,1.19E-05,3.58E-05,5.17E-05,6.37E-05,7.56E-05,9.15E-05,9.15E-05,7.16E-05,3.98E-05,2.79E-05,8.36E-05,0.000167175,0.000131352,0.000167175,7.96E-05,0.000143293,5.57E-05,0.000238822,0.000266685,0.000226881,0.000127372,5.17E-05,0.000266685,0.000202999,0.000167175\nSRI-0000528.txt,CCN(CC)C(=O)N1CCN(CC1)C1=CC=CC=C1,1,0.952171636,0.908898353,0.870180154,0.836017036,0.808686542,0.783633589,0.76541326,0.751748013,0.740815815,0.736260733,0.735349716,0.736260733,0.744232127,0.752431275,0.765641014,0.778850753,0.792288246,0.807547771,0.823035051,0.838066823,0.851959824,0.864941809,0.875418498,0.883617646,0.889767008,0.892955565,0.892044549,0.889539253,0.882023368,0.870407908,0.856856538,0.838772861,0.81658961,0.791627759,0.762725761,0.732024506,0.696768169,0.66003143,0.621768738,0.582367276,0.541303209,0.499191473,0.457762999,0.419249778,0.381442595,0.344774182,0.311271551,0.280228665,0.252920947,0.228186849,0.206800738,0.188580409,0.17343476,0.159723962,0.149998861,0.141230328,0.134397704,0.128863279,0.124376523,0.121370169,0.119001526,0.116359578,0.113877058,0.112601635,0.11039242,0.108798142,0.107021659,0.104425262,0.102694331,0.099619651,0.096658847,0.094563509,0.090760015,0.087799212,0.084451226,0.080442754,0.076570934,0.072904093,0.069874963,0.066048694,0.062267975,0.058851664,0.055549229,0.050675291,0.047031225,0.043478261,0.040130275,0.036805065,0.033639283,0.030291298,0.027535473,0.024984627,0.022547658,0.02129501,0.017901474,0.016443847,0.014712916,0.012936434,0.01136493,0.010476689,0.008973512,0.007948619,0.007128704,0.006422666,0.006490992,0.00580773,0.004236227,0.003689617,0.003530189,0.002755825,0.003416312,0.002983579,0.002869702,0.002300317,0.001594279,0.002459744,0.002368643,0.003279659,0.002118113,0.003120231,0.00109322,0.001617054,0.001708156,0.00223199,0.002436969,0.003302435,0.00302913,0.002710274,0.002345867,0.002596397,0.00218644,0.002300317,0.001799258,0.002733049,0.001457626,0.001503177,0.001844808,0.001229872,0.000637712,0.001002118,0.000660487,0.001366525,0.001617054,0.000751589,0.000933792,0.00109322,0.00084269,0.000501059,0.000364407,0.000318856,0.000318856,0.000387182,0.000455508,0.00054661,0.000637712,0.000706038,0.000797139,0.000888241,0.000979343,0.00109322,0.001207097,0.001320974,0.001480402,0.001412076,0.001115995,0.001525953,0.001844808,0,0.00223199,0.00163983,0.001070444,0.000660487,0.001822033,0.00193591,0.000888241,0.001320974,0.00218644,0.000318856,0.00163983,0.001981461\nSRI-1052762-001.txt,Cc1[nH]c(=O)[nH]c(=O)c1S(=O)(=O)N1CCCC(C1)C(=O)Nc1ccc(Oc2ccccc2)cc1,0.658136611,0.636929978,0.616721305,0.597261101,0.579796816,0.563330489,0.548361102,0.536360642,0.526430949,0.519295541,0.515578143,0.515503296,0.518721714,0.525383092,0.536111153,0.549608551,0.566274469,0.585609928,0.607465234,0.631316458,0.656589774,0.683135488,0.710604314,0.738472324,0.766365283,0.79430814,0.821502527,0.847549262,0.872622986,0.896099976,0.917955281,0.93730072,0.95404398,0.968803796,0.980901556,0.990030388,0.996132908,0.999436153,1,0.997624857,0.992590153,0.985661822,0.97665524,0.966031965,0.953283036,0.938578108,0.921468098,0.902267363,0.881841634,0.85994142,0.836614124,0.811108783,0.782632018,0.751859946,0.719518584,0.686491126,0.65325659,0.620538499,0.587840366,0.555411683,0.521950112,0.488328867,0.454720097,0.421231082,0.388864772,0.357004925,0.325896043,0.295849987,0.266537431,0.238230319,0.211173151,0.185475702,0.161472289,0.139709294,0.120291504,0.102954458,0.087960122,0.074849433,0.063604928,0.053857362,0.04546203,0.037919954,0.031515551,0.025884566,0.021004546,0.016885469,0.013454985,0.010708102,0.008564985,0.006950786,0.005665913,0.004660469,0.003894536,0.003485372,0.003108643,0.002789296,0.002507372,0.002292811,0.002135633,0.001980949,0.001891133,0.001975959,0.001788842,0.001669087,0.001811296,0.001766388,0.001664097,0.001738944,0.001654117,0.001651622,0.001536857,0.001671582,0.00158925,0.001489454,0.001369699,0.00134974,0.001287367,0.001284872,0.001252439,0.001274893,0.001202541,0.001127694,0.001040372,0.000935587,0.000913133,0.000970515,0.000980495,0.000800862,0.000815832,0.00062123,0.000623724,0.000521434,0.000471536,0.000381719,0.000404173,0.000264459,0.000336811,0.000311862,0.000359265,0.000266954,0.000354276,0.000369245,0.000274439,0.000286913,0.000286913,0.000264459,0.000281923,0.000314357,0.000321842,0.000284418,0.000232026,0.000197097,0.000177138,0.000162168,0.000152189,0.000144704,0.000139714,0.000137219,0.000137219,0.000137219,0.000134724,0.000137219,0.000134724,0.000134724,0.000129735,9.73E-05,0,4.74E-05,0.000189612,0.000187117,0.000157179,0.000207077,9.98E-05,0.000199592,0.00012724,0.000152189,0.00013223,0.000187117,3.49E-05,0.000159673,0.000192107\nSRI-001852.txt,BrCC(=O)NCC1=CC=C(CNC(=O)CBr)C=C1,1,0.930553155,0.864186042,0.816979736,0.774249011,0.722199327,0.675936881,0.634619731,0.597990863,0.564915872,0.535594167,0.509073023,0.485365735,0.463182803,0.442027926,0.421909965,0.402128782,0.382804018,0.363855913,0.350092392,0.336475103,0.318572777,0.301273104,0.28442542,0.26822027,0.252405071,0.237121625,0.222276875,0.20731248,0.19320332,0.179586031,0.166970209,0.155249503,0.147175731,0.139624849,0.130452122,0.122418232,0.115306046,0.109084544,0.103381501,0.098010803,0.092976882,0.088071468,0.08329456,0.07872149,0.073988895,0.069265163,0.065835361,0.06251634,0.057703982,0.052670061,0.047662727,0.042464849,0.037426496,0.032623001,0.027757468,0.023476862,0.019825497,0.017153442,0.015247996,0.01435288,0.013231769,0.012301202,0.011574474,0.010887627,0.010236231,0.009700047,0.009327821,0.008911282,0.008304198,0.008038322,0.007564176,0.007200812,0.00701913,0.006491809,0.006106288,0.005685318,0.00520231,0.004883258,0.004453425,0.004094492,0.00373556,0.003163926,0.002889187,0.002468217,0.002521392,0.002158028,0.002002933,0.001701607,0.001790233,0.001608551,0.001630707,0.001404712,0.001581963,0.001493338,0.001285068,0.001404712,0.001409143,0.001280637,0.001254049,0.001178718,0.001121111,0.000966017,0.000921704,0.000961585,0.000695709,0.000713434,0.000527321,0.000753316,2.22E-05,0.000598221,0.00024372,0,0.000341208,0.000119644,5.32E-05,0.00035007,0.00048744,0.000394383,0.00070014,0.000580496,0.000540615,0.000735591,0.000828647,0.001192011,0.001214168,0.001174286,0.001329381,0.001409143,0.001129974,0.001404712,0.001271774,0.001422437,0.001298362,0.001045779,0.001369262,0.001050211,0.000992604,0.001085661,0.000992604,0.001023623,0.000921704,0.00097931,0.001019192,0.001147699,0.001227461,0.001462319,0.001351537,0.001785801,0.001901014,0.001794664,0.00198964,0.002184616,0.00209599,0.002069403,0.002149165,0.002503667,0.002596724,0.002765112,0.003115182,0.003345608,0.003234826,0.003053144,0.003708972,0.003629209,0.00377101,0.003837479,0.003970417,0.003713403,0.004129943,0.004245156,0.004254018,0.004413544,0.003903948,0.004732595,0.0044357,0.005220035,0.005565674,0.004754751,0.00537956,0.004612951\nSRI-1053310-001.txt,NC(=O)C1CCCN1C(=O)Cn1nnc2ccccc2c1=O,0.991681601,0.995198776,0.997711044,1,0.999218405,0.994361353,0.984814734,0.969796953,0.948861384,0.923738702,0.895433813,0.865119109,0.831678028,0.792598299,0.745256,0.689762786,0.627905159,0.563144467,0.500505245,0.443058045,0.39281268,0.350980622,0.317115246,0.289938087,0.268505647,0.25088069,0.23642119,0.223714696,0.212515562,0.201986367,0.192283429,0.183501655,0.176076507,0.169812585,0.164307926,0.159261058,0.154789221,0.150244807,0.146135852,0.142294873,0.138984262,0.137203343,0.136913036,0.13777279,0.14030739,0.144332602,0.149452046,0.155604312,0.162448847,0.169868413,0.177388469,0.185327237,0.193249256,0.201383422,0.209294276,0.216898074,0.224518621,0.231659046,0.23848125,0.245320203,0.250629463,0.255090135,0.258490071,0.260801358,0.261845345,0.261890007,0.26092418,0.259450316,0.257524243,0.25448719,0.251701364,0.247893882,0.243762596,0.239195851,0.23465702,0.230453157,0.226165553,0.222207335,0.218935803,0.215971327,0.213319488,0.20989722,0.206128818,0.200975877,0.19458355,0.186985334,0.178605524,0.170035898,0.16205805,0.1548283,0.148737446,0.144611743,0.142077143,0.140424629,0.139201992,0.136823711,0.131905248,0.123821327,0.113403789,0.100501895,0.087114297,0.073922097,0.061327259,0.050122543,0.040760157,0.032860469,0.026300657,0.021477102,0.017256491,0.013811893,0.011260545,0.009401466,0.007732203,0.006336499,0.005353923,0.00429877,0.003606501,0.003159875,0.002623925,0.002166134,0.001853496,0.001691594,0.001284048,0.001110981,0.000976993,0.000865337,0.000982576,0.000960245,0.000519202,0.00083184,0.000731349,0.000658773,0.00065319,0.000552699,0.000351718,0.00025681,0.000552699,0.000429877,0.000312638,0.000485705,0.000251227,0.000468957,0.000390797,0.000569447,0.000189816,8.37E-05,0.000117239,0.000150736,0.000173067,0.000184233,0.000156319,0.000128405,0.000117239,0.000106074,8.37E-05,6.14E-05,3.35E-05,3.91E-05,4.47E-05,5.02E-05,4.47E-05,4.47E-05,2.79E-05,1.67E-05,2.79E-05,0,2.23E-05,0.00013957,0.000234478,7.26E-05,0.000161902,0.00017865,5.58E-05,0.000262392,0.000251227,6.7E-05,0.000122822,0.000133988,0.000184233,0.000189816,0.000307055\nSRI-0000500.txt,CCCCC(=O)N\\N=C\\C1=CC=CS1,0.432926685,0.411565756,0.387831391,0.360536871,0.335615788,0.310694705,0.284586903,0.261089882,0.240559656,0.223352242,0.209111623,0.196888425,0.186682648,0.180274369,0.174578122,0.171373982,0.169712577,0.169119218,0.170305936,0.173035388,0.176358199,0.180630385,0.185970617,0.191904208,0.198787174,0.20697553,0.215757245,0.225013647,0.234982081,0.24601856,0.257589063,0.269717324,0.281287827,0.293309283,0.305734223,0.317589538,0.32920751,0.340540669,0.351043125,0.361415043,0.371122398,0.380188926,0.388650227,0.396802981,0.403614744,0.409500866,0.413630646,0.416917855,0.418911542,0.419979588,0.421546057,0.42270904,0.424821399,0.427349109,0.430387107,0.433638715,0.436854722,0.440675955,0.44440225,0.4478556,0.453480645,0.461396055,0.471471293,0.485249092,0.501044312,0.520542093,0.542520115,0.566396886,0.591412907,0.617105357,0.644411744,0.672809911,0.701587829,0.730258942,0.758241758,0.785916028,0.812427314,0.837395865,0.861640519,0.884864595,0.906011915,0.925319821,0.942847649,0.958500463,0.971447559,0.981843211,0.989972231,0.99587022,0.999299836,1,0.996499181,0.989948496,0.981107445,0.96824342,0.952816082,0.934706762,0.913369568,0.889872546,0.863646073,0.836802506,0.807965253,0.777846344,0.746291505,0.713443144,0.679882752,0.643652244,0.606662236,0.569280611,0.531448034,0.492048988,0.4516887,0.412847412,0.374753756,0.335686991,0.299836233,0.26472124,0.232193293,0.203023758,0.1748392,0.149716374,0.127311134,0.107991361,0.090700876,0.075866898,0.064355731,0.052832696,0.043801771,0.036990008,0.030641065,0.025431372,0.021384663,0.017729571,0.014940783,0.012911495,0.011143284,0.009398809,0.008366364,0.007345786,0.007167778,0.00636081,0.005209693,0.004699404,0.004829943,0.004355256,0.004521397,0.004248451,0.004094178,0.004034842,0.003975506,0.003773764,0.003560155,0.003358413,0.003192272,0.0030736,0.00299053,0.00290746,0.002800655,0.002681983,0.002551444,0.002420905,0.002278499,0.002100491,0.001898749,0.001732609,0.001649538,0.001720741,0.001625804,0.00176821,0.001542734,0.00122232,0.001020578,0.000949375,0.000984976,0.001281656,0.0007595,0.000498422,0.000652695,0.000522156,0.000415351,5.93E-05,0\nSRI-0000514.txt,CCCCN(CCCC)CC(O)C1=CC2=CC=CN=C2C2=C1C=CC(=C2)C(F)(F)F,0.445894928,0.446349784,0.444985217,0.444530362,0.448169206,0.456356607,0.470911985,0.492745053,0.522310666,0.558699113,0.601682966,0.649169889,0.701068911,0.753786673,0.803138504,0.846622697,0.882419832,0.91039345,0.933500114,0.954559927,0.974937457,0.991721628,1,0.993359108,0.964930635,0.915760746,0.849897657,0.774573573,0.697430066,0.623015693,0.556333864,0.500486695,0.455792586,0.423038435,0.401623834,0.390252445,0.386954742,0.3900796,0.397452809,0.407264044,0.418307937,0.429415511,0.441128042,0.453945872,0.46736866,0.480582215,0.49039345,0.49332272,0.487036616,0.471189447,0.447405049,0.418690016,0.388005458,0.358453491,0.332058222,0.31011144,0.292049124,0.277357289,0.264657721,0.253099841,0.241501023,0.230238799,0.219863543,0.210816466,0.20377985,0.19785763,0.192026382,0.185067091,0.176738685,0.167223107,0.157425517,0.148173755,0.140404821,0.13540141,0.133659313,0.134428019,0.136547646,0.137816693,0.136470321,0.131034796,0.121205367,0.108423925,0.094136912,0.079586081,0.065667501,0.05360473,0.043989083,0.036679554,0.031507846,0.028096429,0.026149647,0.02569934,0.026126905,0.027850807,0.030211508,0.032422106,0.033850353,0.033595633,0.032240164,0.030270639,0.028255629,0.027582443,0.027514214,0.028087332,0.029329088,0.030848306,0.033841255,0.038453491,0.044930635,0.051689788,0.056474869,0.058035024,0.055155788,0.049442802,0.042642711,0.036702297,0.032695019,0.030275188,0.029138049,0.028924267,0.02947919,0.031080282,0.034764612,0.041255401,0.049315442,0.056670457,0.06163748,0.061382761,0.056365704,0.047168524,0.036806914,0.027113941,0.018894701,0.012690471,0.008542188,0.005676598,0.003948146,0.00305663,0.002387992,0.001910393,0.001569252,0.00135547,0.001332727,0.001109848,0.001009779,0.001050716,0.001059814,0.001023425,0.000927905,0.000773254,0.000623152,0.000495793,0.000395724,0.00034569,0.000327496,0.000327496,0.000332045,0.000322947,0.000322947,0.000332045,0.000327496,0.000322947,0.000304753,0.000286559,0.000245622,0.000209234,0.000286559,0.000359336,0.000145554,0.000309302,0,0.000204685,0.000241073,0.000386627,0.000304753,0.000227428,0.000154651,0.000291108,0.00012736,0.000231976,0.000286559\nSRI-1052807-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)COc1ccc2c3CCCCc3c(=O)oc2c1,1,0.996427599,0.983669026,0.958151878,0.920896843,0.868501633,0.80453865,0.732137997,0.656181954,0.580787289,0.509424333,0.445801579,0.390106151,0.342729314,0.303381873,0.271060152,0.244828525,0.223649292,0.206399701,0.192399292,0.18072945,0.17062466,0.161642624,0.153085874,0.144988432,0.137418345,0.130954001,0.125629423,0.121784839,0.11930117,0.117981083,0.1172615,0.11657764,0.115953321,0.115369829,0.115150381,0.115851252,0.117586418,0.120587235,0.124817978,0.130127246,0.13642828,0.143535656,0.151138065,0.159162357,0.167661268,0.176394937,0.185009526,0.193904804,0.202594243,0.211150993,0.219527422,0.227771162,0.235872006,0.243632621,0.250983261,0.257859281,0.264423993,0.270954682,0.277541508,0.283248843,0.288328457,0.292244488,0.294974823,0.296500749,0.296665759,0.295954682,0.295597441,0.297159091,0.30055117,0.304477409,0.306263609,0.303453321,0.295663786,0.28471693,0.273174673,0.26303586,0.255288854,0.250161609,0.248140651,0.2485115,0.251039398,0.255846829,0.26226184,0.270051375,0.278638745,0.288010343,0.297620101,0.30726218,0.316531709,0.32547632,0.333760887,0.341501089,0.348756464,0.355545727,0.361799129,0.367520073,0.372594584,0.37699374,0.380382417,0.382532662,0.383570359,0.382910316,0.380339888,0.376081927,0.370136432,0.362682022,0.353830974,0.344326688,0.334119829,0.323610166,0.313107308,0.302577232,0.291710329,0.280668209,0.269054505,0.25703933,0.244185493,0.230377314,0.215182703,0.19903205,0.182097169,0.164442705,0.146536473,0.128830974,0.111647727,0.095597441,0.080860438,0.067674878,0.056200667,0.046516059,0.03808009,0.031066277,0.025229654,0.020396707,0.016422836,0.013277422,0.010802259,0.008754083,0.006959377,0.005688623,0.004727477,0.003871802,0.003249183,0.002686105,0.002279532,0.00209751,0.002048176,0.001956315,0.001694339,0.001367719,0.001076824,0.000876089,0.000751905,0.000671952,0.00061071,0.000559676,0.000512044,0.000472918,0.000435493,0.000392964,0.000350435,0.000311309,0.000272183,0.000234758,0.000187126,0.00013439,0.000190528,0.000200735,0.000149701,8.85E-05,0.00017862,8.17E-05,8.85E-05,5.78E-05,0,6.97E-05,5.78E-05,0,6.8E-05,4.59E-05\nSRI-1052865-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)CCSc1nc2ccccc2c(=O)[nH]1,0.972740787,0.988258253,0.995202615,1,0.996298314,0.984660215,0.965781618,0.943763992,0.915779249,0.882286398,0.845521257,0.812442994,0.774907902,0.737180322,0.695292048,0.650368392,0.603682733,0.556730553,0.511303467,0.468023359,0.428622618,0.392953175,0.360689283,0.331712489,0.306437379,0.284523401,0.26620746,0.25144958,0.239962509,0.231456036,0.225783573,0.222837031,0.222184054,0.22333898,0.22623814,0.230577996,0.236222326,0.242494462,0.249501013,0.256819986,0.26431812,0.272045759,0.280336054,0.289006882,0.297696959,0.306656519,0.315053423,0.322588574,0.329076888,0.334040109,0.337624821,0.339705168,0.341113289,0.341711482,0.341404982,0.340714988,0.339126225,0.337177657,0.335098791,0.332316604,0.328240308,0.322347224,0.314468556,0.30468278,0.293226804,0.280158373,0.266475462,0.254251016,0.244715474,0.238193104,0.233712583,0.228585008,0.220327288,0.208564812,0.194670165,0.180508997,0.167726336,0.156511709,0.147636548,0.14085506,0.136022139,0.132908281,0.130989327,0.129770732,0.128242677,0.125861752,0.122296289,0.117421909,0.111821999,0.106202841,0.101147819,0.09719738,0.094582509,0.093306168,0.093021878,0.093054453,0.092681323,0.090969664,0.087349415,0.081228308,0.072883228,0.063125585,0.052797882,0.042705606,0.033614267,0.025748925,0.019575994,0.014632023,0.010921453,0.008202935,0.006137395,0.004807749,0.003735741,0.003072399,0.00252603,0.00199891,0.001667239,0.001476232,0.001288187,0.001043875,0.000928383,0.00081289,0.000735895,0.00068111,0.000587828,0.000453086,0.00046197,0.000377572,0.000302058,0.000331671,0.000325748,0.000355362,0.000282809,0.000228024,0.00019841,0.000185084,0.000222101,0.000251715,0.000193968,0.00019693,0.000173239,0.000188046,0.000192488,0.000189526,0.00013178,0.00013178,0.000133261,0.000133261,0.000122896,9.62E-05,7.85E-05,6.66E-05,5.63E-05,5.18E-05,4.89E-05,4.59E-05,4.15E-05,4E-05,3.85E-05,3.85E-05,3.55E-05,3.41E-05,3.41E-05,3.7E-05,4E-05,3.11E-05,2.96E-05,8E-05,0,9.33E-05,8.59E-05,2.67E-05,3.41E-05,2.52E-05,6.51E-05,0.000140664,6.37E-05,9.03E-05,6.96E-05,2.07E-05,2.96E-06\nSRI-1052875-001.txt,COc1ccc(CCNC(=O)C[C@@H]2NC(=O)N(CCc3c[nH]c4ccccc34)C2=O)cc1,0.98040024,0.990624261,0.998065324,1,0.993898328,0.982736734,0.963092327,0.938760051,0.903504294,0.86434942,0.821965125,0.780786282,0.743521438,0.71021524,0.682445193,0.659318369,0.640626418,0.623511973,0.607409513,0.590533182,0.572049581,0.551095548,0.527090678,0.50015403,0.470672538,0.439122431,0.406322225,0.372539799,0.338593669,0.305768163,0.27474786,0.246669752,0.22212615,0.201300103,0.184639562,0.171634072,0.162514305,0.156655212,0.153649023,0.153050761,0.154830664,0.158424697,0.163910249,0.170827461,0.179076624,0.18858779,0.199280598,0.210879727,0.223425359,0.237060363,0.251247494,0.266019493,0.281464163,0.297434173,0.313396741,0.329344427,0.345144781,0.361088002,0.377687526,0.394740954,0.412389668,0.430252684,0.447505532,0.463850572,0.478241588,0.490581846,0.500438279,0.508642795,0.515954383,0.523301689,0.530626671,0.536347361,0.53937885,0.538561821,0.534872542,0.5283631,0.520399674,0.511223355,0.500246299,0.486030892,0.468529512,0.447699,0.423732824,0.397397414,0.369585696,0.341279893,0.313255361,0.286951203,0.262176928,0.239965354,0.220271837,0.202935648,0.188438969,0.175918636,0.165313633,0.156494485,0.14920522,0.142840135,0.137440899,0.132738148,0.12847293,0.124707752,0.121258075,0.117991449,0.114811138,0.111724585,0.108763042,0.105774711,0.102834003,0.099769774,0.09679186,0.093799065,0.090678283,0.087578336,0.084546847,0.081345701,0.078285936,0.075187478,0.072036931,0.068989072,0.065895078,0.062750485,0.059762154,0.056941991,0.053975983,0.051011464,0.048221065,0.045496148,0.042774207,0.040233828,0.037813994,0.035404578,0.033112731,0.030752425,0.028604935,0.026472326,0.024390316,0.022483916,0.020684667,0.018937505,0.017303448,0.015737848,0.014260053,0.012959355,0.011730092,0.010658579,0.009985907,0.009609389,0.009097444,0.008124153,0.007000552,0.005979638,0.005244461,0.004769721,0.004446779,0.004183366,0.003928881,0.003662491,0.003385684,0.003092506,0.002774028,0.00240644,0.002000158,0.00158197,0.001193547,0.000915251,0.000754524,0.000639931,0.000578915,0.000535757,0.000437535,0.000379494,0.000293178,0.000252996,0.00016668,0.000157751,0.00010864,5.21E-05,3.27E-05,2.38E-05,0\nSRI-031198.txt,CCC1=CC=C(C=C1)C(\\N)=N\\O\\C(=C\\C(=O)OC)C(=O)OC,0.938351556,0.934988125,0.92446222,0.915739227,0.910870609,0.905041269,0.897147653,0.896198695,0.906597841,0.912282561,0.91584026,0.923502921,0.934014226,0.944831048,0.960060949,0.974290973,0.985571373,0.993686424,0.998169239,0.999999998,0.999077257,0.992370891,0.979656586,0.95615309,0.901115941,0.792570375,0.662483097,0.551569492,0.474558309,0.425005363,0.396038858,0.380664898,0.37321225,0.370343048,0.370484268,0.372507402,0.377117237,0.383408052,0.389831551,0.395416818,0.397160432,0.397826894,0.398806267,0.401193095,0.40752411,0.415042447,0.424400506,0.428024785,0.421800687,0.41339627,0.403200551,0.398693628,0.399880266,0.397926438,0.386300269,0.369004343,0.354523619,0.353992857,0.35935882,0.345417349,0.318908749,0.29419419,0.276099525,0.262618825,0.252743272,0.244842672,0.237592989,0.230039173,0.221797757,0.213187648,0.204665378,0.196003104,0.187176499,0.178507248,0.170260751,0.162609753,0.155370943,0.148559483,0.142241182,0.136182249,0.130295661,0.1244833,0.118880923,0.113492339,0.107934317,0.102422145,0.097097365,0.092041472,0.087267881,0.082632716,0.078086237,0.07379092,0.069797582,0.065905899,0.061923992,0.058096565,0.054602508,0.051370203,0.048200717,0.045018382,0.041974795,0.039251756,0.036780665,0.034421547,0.032379469,0.030573072,0.028466339,0.026143768,0.024296793,0.022737941,0.021513611,0.020177719,0.018597065,0.017303203,0.016143282,0.015012622,0.013931997,0.012955458,0.012077045,0.011204549,0.010444363,0.009741334,0.009012386,0.008372362,0.007705726,0.007112817,0.006595939,0.006094669,0.005690699,0.005151082,0.004669336,0.004348417,0.004017903,0.003688431,0.003357617,0.003069156,0.002839042,0.002625884,0.002418485,0.00222308,0.002047621,0.001890884,0.001753134,0.001658211,0.001594292,0.001494661,0.001473164,0.0017178,0.00176192,0.001577365,0.001305845,0.001103052,0.001101456,0.000927869,0.000784607,0.000903062,0.001021254,0.000806942,0.001007044,0.001439206,0.001381501,0.000897999,0.001028146,0.001085394,0.000936889,0.000774588,0.000539528,0.001018448,0.001956426,0.00178716,0.000339777,5.04E-11,0.000883671,0.001637424,0.001629066,0.001152505,0.000444946,0.000474138,0.001586952,0.002365309,0.001446269\nSRI-1053362-001.txt,CC[C@@H](C)[C@H](NS(=O)(=O)c1ccccc1)C(O)=O,0.993957818,1,0.997545364,0.987349181,0.967145635,0.940711089,0.903891543,0.861973905,0.812881177,0.759634448,0.702422537,0.644455354,0.587809898,0.53343026,0.481505259,0.432978985,0.388606711,0.34914371,0.313268254,0.282302071,0.256245162,0.232642888,0.212061706,0.19393516,0.178640887,0.165612432,0.153528068,0.141764695,0.131379694,0.122014312,0.113120976,0.104605276,0.098015521,0.09270973,0.089254357,0.089499821,0.090122921,0.091557939,0.094031457,0.097241366,0.099205075,0.09852533,0.097014784,0.095466475,0.096750439,0.101093257,0.105266139,0.104227639,0.096014048,0.085817866,0.077717566,0.075527275,0.077226638,0.079832329,0.076773475,0.067294802,0.05315232,0.039689583,0.029417874,0.021808501,0.017635619,0.014803346,0.012613055,0.0105927,0.009384264,0.008440173,0.008005891,0.006457582,0.005758955,0.005022564,0.004644927,0.003625309,0.003644191,0.003833009,0.002681218,0.003757482,0.002794509,0.001982591,0.001472782,0.001642718,0.001283964,0.0010385,0.0010385,0.000925209,0.001265082,0.0012462,0.001623836,0.001378373,0.000811918,0.000793036,0.001265082,0.000679745,0.001000736,0.001189555,0.001283964,0.000604218,0.000472045,0.000981855,0.000849682,0.000736391,0.000453164,3.78E-05,0.001000736,0.001170673,0,0.000547573,0.001189555,0.000981855,0.000283227,0.000868564,0.001548309,0.000698627,0.001302845,0.0004154,0.001265082,0.001831536,0.001076264,0.001227318,0.000472045,0.000358755,0.002171409,0.001000736,0.000887445,0.0010385,0.0010385,0.001302845,0.001831536,0.001888182,0.000396518,0.000604218,7.55E-05,0.000887445,0.001378373,0.0008308,0.001302845,0.001265082,0.001302845,0.000887445,0.0008308,0.000641982,0.001000736,0.001491664,0.001151791,0.000641982,0.000396518,0.000377636,0.000396518,0.000453164,0.000528691,0.000679745,0.000793036,0.000868564,0.000868564,0.0008308,0.000793036,0.000774155,0.000717509,0.000641982,0.000585336,0.000547573,0.000490927,0.000396518,0.000377636,0.000377636,0.000528691,0.000887445,0.000736391,0.000698627,0.000302109,0.000566455,0.001170673,0.001283964,0.001076264,0.000755273,0.000604218,0.000339873,0.000868564,0.000245464,0.000887445,0.0008308,0.000755273\nSRI-1053372-001.txt,OC(=O)CCC(=O)NCCc1c[nH]c2ccccc12,0.989447017,0.999650563,1,0.987909496,0.96212108,0.920957456,0.863475146,0.790547742,0.70808072,0.62037215,0.535494016,0.458583035,0.39149122,0.335930812,0.291482484,0.256259282,0.228653796,0.207687604,0.190984537,0.177705949,0.166803529,0.15782301,0.15017035,0.143426225,0.137660522,0.132873242,0.128680003,0.125115751,0.122183978,0.11988818,0.117948808,0.116648904,0.115970997,0.115764829,0.116219097,0.117075216,0.118424041,0.120185201,0.122197956,0.124797764,0.127603739,0.130675286,0.133802743,0.137049008,0.140641216,0.144348738,0.147881541,0.151501704,0.155076439,0.15856731,0.16170525,0.164797764,0.167320695,0.169588538,0.171265834,0.1722792,0.17283131,0.173135319,0.173732856,0.174770682,0.175986721,0.176898751,0.177021054,0.176067092,0.173324015,0.168840744,0.162669695,0.155988469,0.150865729,0.147811654,0.146424391,0.144051717,0.138167205,0.127729536,0.113881366,0.099145628,0.085119245,0.072536036,0.061801345,0.052562243,0.044465799,0.037690225,0.031823185,0.026773827,0.022412859,0.018761247,0.01566524,0.013191229,0.011052678,0.009295012,0.007963659,0.006733642,0.005804141,0.005112256,0.004353979,0.003815847,0.003494365,0.003155412,0.00280947,0.002470516,0.002383157,0.002103608,0.001970822,0.001785621,0.001687778,0.001558487,0.001492094,0.001530532,0.001268455,0.001223028,0.001146152,0.000926007,0.000988905,0.000957456,0.00082467,0.000859614,0.000670918,0.000580065,0.000656941,0.000601031,0.000667424,0.000562593,0.000548615,0.000503189,0.000443784,0.000531144,0.000482222,0.000503189,0.000377391,0.000338953,0.000321482,0.000408841,0.000377391,0.000150258,0.00016773,0.000335459,0.000356425,0.000345942,0.000227134,0.00013628,0.000160741,0.000307504,0.000241111,0.000206168,0.000157246,0.00013628,0.000139775,0.000164235,0.000181707,0.000178213,0.000171224,0.000150258,0.000129292,0.00011182,9.43E-05,8.39E-05,6.64E-05,5.59E-05,5.24E-05,4.89E-05,4.54E-05,4.19E-05,5.24E-05,8.04E-05,0.000132786,0.000164235,9.43E-05,3.49E-05,6.99E-05,8.04E-05,0.000108325,0.000125797,0,6.64E-05,3.49E-06,4.19E-05,8.74E-05,9.43E-05,7.69E-05,2.45E-05,2.8E-05\nSRI-0000448.txt,[O-][N+](=O)C1=CC=C(S1)\\C=N\\NC(=O)CC1=CN=CC=C1,0.319680791,0.300437686,0.283647134,0.266479266,0.249877372,0.234596083,0.219126137,0.204976795,0.190450138,0.178564691,0.169320454,0.161774139,0.157623665,0.155548428,0.157246349,0.160830849,0.169886428,0.181583217,0.197241822,0.216296268,0.238180583,0.263649398,0.292212202,0.323189828,0.355563521,0.391238728,0.428592989,0.467267856,0.508508471,0.55022073,0.592423499,0.636192129,0.678715617,0.721597555,0.764875674,0.806078557,0.845715579,0.880409765,0.912009961,0.941289665,0.966343433,0.985114893,0.996679621,1,0.993887484,0.979870203,0.960212051,0.935969513,0.905765385,0.867750821,0.820001509,0.762008075,0.698053051,0.631947327,0.567030148,0.50730106,0.45251481,0.402577067,0.358016074,0.318303588,0.281911482,0.250084896,0.220597668,0.193808248,0.170244878,0.148662416,0.129249519,0.111874127,0.09649851,0.081934121,0.068822397,0.056220051,0.046824888,0.037203335,0.028751462,0.022299362,0.016677357,0.010772365,0.007338792,0.004980568,0.00192431,0.00156586,0.000377316,0,0.000660303,0.002112968,0.003527903,0.005357884,0.008697129,0.011942044,0.014753047,0.019563823,0.024676452,0.029694752,0.03480738,0.040297325,0.047447459,0.054710787,0.061898653,0.070878768,0.078632608,0.08861261,0.098705807,0.108685809,0.119816625,0.131626608,0.1439837,0.157114289,0.171188167,0.185016791,0.199524582,0.216315134,0.231426631,0.248820888,0.266781119,0.284816813,0.302399728,0.322133343,0.341659435,0.361676037,0.383409425,0.403671282,0.424046334,0.445496736,0.467399917,0.489737011,0.51124401,0.534392333,0.555861601,0.575180168,0.594876052,0.615251104,0.634211221,0.654454213,0.674678338,0.693902577,0.713089084,0.731464363,0.749839641,0.767799872,0.783741463,0.800456552,0.816001962,0.83007584,0.844168585,0.857223711,0.865562389,0.870392031,0.875240539,0.884786628,0.895879712,0.905821982,0.912236351,0.915858582,0.917518771,0.918311135,0.9190469,0.919311021,0.918839377,0.917933819,0.91568879,0.913481493,0.910481832,0.904520243,0.895823114,0.884635702,0.873410557,0.86080821,0.845432593,0.831188922,0.815737841,0.797683281,0.779270271,0.760121496,0.740953854,0.720597668,0.698486964,0.675055654,0.651794137,0.627476135,0.601837528\nSRI-1053004-001.txt,COC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)c1cccc(c1)-n1cnnn1,1,0.997990498,0.986293683,0.966900097,0.938994567,0.901591298,0.855429635,0.803789237,0.747807558,0.69057468,0.635559836,0.585568746,0.541245967,0.502818989,0.469984493,0.44217375,0.418438883,0.397907844,0.379841287,0.363234463,0.348011541,0.333850243,0.320314544,0.307328614,0.294664963,0.282475251,0.270721563,0.259214323,0.248218937,0.237682324,0.227367515,0.217820487,0.208627965,0.199898008,0.192100763,0.184781249,0.178273118,0.17229959,0.166927017,0.162217959,0.158005589,0.154396069,0.151434898,0.149144824,0.147423478,0.146107823,0.145446204,0.145159945,0.145112551,0.145442413,0.14583673,0.146344793,0.146803566,0.14731542,0.147396937,0.147359022,0.147133427,0.146868021,0.146959018,0.147410208,0.147912583,0.148303109,0.147971351,0.146403561,0.143601633,0.13906888,0.133167391,0.127320879,0.123146424,0.12109332,0.119880037,0.117078109,0.110856237,0.100839062,0.088603851,0.076139255,0.064730594,0.054840434,0.046557876,0.039680072,0.033736877,0.028722602,0.024576583,0.02089692,0.01786371,0.015372687,0.013306312,0.01158307,0.010094902,0.008891096,0.00787118,0.007037047,0.00631666,0.005675894,0.005135603,0.004735599,0.004290096,0.003965922,0.00369862,0.003486296,0.00329672,0.003088187,0.003006669,0.002775387,0.002659746,0.00256875,0.002434151,0.002316614,0.002373487,0.002312823,0.002218035,0.002079645,0.002077749,0.001975378,0.001844571,0.001641725,0.001745991,0.001721347,0.001713764,0.001594331,0.001556416,0.001516605,0.001412338,0.001412338,0.001393381,0.001285323,0.001150724,0.001076789,0.001209492,0.001131766,0.001016125,0.000945982,0.000807592,0.00095167,0.00083982,0.000756407,0.000724179,0.000773469,0.000758302,0.000678681,0.000595267,0.000553561,0.000561144,0.000485314,0.000445503,0.0004019,0.000363985,0.000341236,0.000318487,0.000278676,0.000238865,0.000202846,0.000172514,0.000157348,0.000147869,0.000144077,0.000132703,0.000121328,0.000104267,8.91E-05,7.01E-05,4.93E-05,3.41E-05,3.41E-05,3.6E-05,4.36E-05,5.31E-05,0.000147869,7.2E-05,0.000104267,6.64E-05,3.6E-05,6.26E-05,0,4.36E-05,3.22E-05,5.69E-06,5.12E-05,5.31E-05,3.22E-05,7.58E-06\nSRI-1053014-001.txt,O=C(CCn1nnc2ccccc2c1=O)N1CCC[C@H]1c1nc2ccccc2[nH]1,1,0.984211169,0.967346488,0.949667649,0.930564036,0.909744878,0.887181098,0.862669156,0.83731398,0.811057416,0.785295161,0.760317986,0.734264962,0.70454823,0.669481324,0.628395471,0.582715446,0.535290799,0.489814314,0.447768919,0.41194601,0.382636357,0.358938572,0.340649116,0.325901243,0.314325674,0.304567421,0.295687294,0.28763877,0.280154341,0.273673069,0.268229848,0.26361823,0.260126078,0.257686515,0.255886646,0.25465378,0.253796007,0.253170851,0.253258082,0.254921288,0.259096751,0.266081055,0.275391522,0.285882517,0.296856191,0.307070954,0.318198736,0.331338649,0.347482219,0.36680391,0.387262513,0.403856778,0.411466239,0.407392546,0.396703827,0.388303471,0.391275144,0.406261449,0.424231058,0.429430032,0.413396954,0.38058061,0.34164355,0.304494728,0.273809732,0.2499055,0.232255738,0.219674105,0.210151375,0.202887931,0.196944585,0.191635118,0.186610606,0.182010619,0.177887495,0.174075496,0.170478666,0.167608763,0.165058707,0.162592974,0.160008025,0.156815367,0.152767843,0.147749147,0.141893031,0.135554237,0.129052612,0.122940619,0.117604983,0.113263781,0.110233954,0.108341039,0.10742802,0.106488832,0.104415639,0.100449531,0.094325907,0.086201783,0.076612176,0.066481737,0.056447251,0.047168769,0.038919614,0.031882971,0.025962886,0.021107021,0.017225237,0.014003501,0.011575568,0.009537268,0.007868246,0.006466733,0.005411237,0.004477864,0.003826538,0.003067627,0.002567502,0.00225347,0.002035393,0.001852207,0.001477113,0.001381159,0.001055496,0.000965358,0.000878127,0.000866496,0.000799619,0.000619341,0.00049431,0.000508848,0.000482679,0.000552464,0.000427432,0.000328571,0.000404171,0.000375094,0.000471048,0.00031694,0.000296586,0.000346017,0.000255878,0.000273324,0.000270416,0.000197724,0.000229709,0.000244247,0.000244247,0.000235524,0.000218078,0.000180278,0.000151201,0.000122124,9.89E-05,7.56E-05,6.11E-05,5.23E-05,5.82E-05,6.11E-05,6.69E-05,7.27E-05,8.43E-05,9.01E-05,0.000104677,0.000122124,0.000130847,0.000133754,0.000244247,0.000218078,4.36E-05,0.000119216,0.000116308,0.000159924,0.000119216,5.82E-06,5.23E-05,5.82E-06,8.14E-05,0.00010177,0,5.82E-06\nSRI-0000474.txt,COC(=O)C1=CC2=C(Cl)C=C(Cl)C=C2C2=CN=CC=C12,0.487108143,0.49638286,0.514932295,0.524207012,0.56130588,0.579855314,0.598404749,0.6262289,0.654053051,0.672602486,0.700426637,0.718976071,0.728250788,0.737525505,0.746800223,0.739380449,0.739380449,0.725468373,0.718976071,0.711556298,0.704136524,0.706918939,0.711556298,0.719903543,0.73474309,0.754219996,0.778334261,0.808013356,0.838619922,0.866444073,0.89705064,0.920237433,0.941569282,0.957336301,0.969857169,0.975329252,0.983120015,0.992672973,0.996753849,1,0.995177147,0.988592098,0.977091449,0.951029494,0.920422927,0.878964942,0.836764979,0.785754035,0.742162864,0.696345761,0.651919866,0.616212206,0.578093118,0.542663699,0.516787238,0.491560007,0.472083101,0.455388611,0.440085327,0.429697644,0.418660731,0.410127991,0.399554814,0.384344277,0.364310889,0.349285847,0.339732888,0.326284548,0.322667409,0.318772027,0.321090707,0.318864775,0.31867928,0.318957522,0.319143016,0.326748284,0.322389167,0.325264329,0.332962345,0.332220367,0.341866073,0.347059915,0.351048043,0.363383417,0.367928028,0.371452421,0.3786867,0.382118345,0.386384715,0.388981636,0.387961417,0.388146912,0.387683176,0.387126693,0.382025598,0.384715266,0.379150436,0.377851976,0.367928028,0.362270451,0.353273975,0.340938601,0.325728065,0.315618624,0.309219069,0.296512706,0.273511408,0.254961974,0.236969022,0.220831015,0.204971248,0.186978297,0.168985346,0.155166017,0.137915044,0.125301428,0.117139677,0.108885179,0.104618809,0.095900575,0.097106288,0.085605639,0.081710258,0.080690039,0.079484326,0.075681692,0.074290484,0.071415322,0.067056205,0.060471156,0.063346318,0.058801707,0.053978854,0.053051382,0.058616212,0.052958635,0.046744574,0.050361714,0.051103691,0.047301057,0.041365238,0.04099425,0.035522167,0.032183268,0.030513819,0.028658876,0.026247449,0.025227231,0.024392506,0.02263031,0.020589872,0.018085698,0.016138008,0.0147468,0.013819329,0.012984604,0.012149879,0.011129661,0.010294936,0.009460211,0.008718234,0.007790762,0.006956038,0.00621406,0.005008347,0.003709887,0.003802634,0.0049156,0.004544611,0.003895381,0,0.002596921,0.000278242,0.001947691,0.005472083,0.005379336,0.002967909,0.004730106,0.001112966,0.002967909,0.002318679\nSRI-0000306.txt,OC1=C(CC2=NC3=CC(Cl)=CC=C3O2)C=CC=C1,1,0.940220241,0.887257472,0.841636078,0.802307289,0.767697955,0.739381227,0.718405873,0.703198741,0.694284216,0.690613529,0.691662297,0.695437861,0.701101206,0.705663346,0.707341374,0.705086523,0.697325642,0.684583115,0.665705296,0.642055585,0.615049816,0.584845307,0.551966439,0.516937598,0.477818563,0.43539591,0.388830624,0.34058731,0.292920818,0.249134767,0.21137913,0.180938647,0.157739906,0.141735711,0.131751442,0.126444678,0.125799685,0.128348191,0.133670687,0.141153644,0.150886209,0.162275826,0.17539591,0.190277923,0.206890404,0.224252753,0.2422129,0.26103828,0.281258521,0.303282643,0.326937598,0.35135291,0.374174095,0.393471421,0.408925013,0.421851075,0.435028841,0.450828526,0.468710016,0.485684321,0.496491872,0.495490299,0.47889355,0.448820136,0.414373361,0.388914525,0.378935501,0.378363922,0.369638175,0.335988464,0.278122706,0.210482433,0.149800734,0.103639224,0.072328264,0.052422653,0.039832197,0.031798637,0.026643943,0.022784478,0.019779759,0.017703199,0.015936025,0.014593603,0.01325118,0.012071316,0.010933403,0.009785003,0.008851599,0.007891977,0.007624541,0.007273204,0.006796015,0.006460409,0.006135291,0.005888831,0.005443104,0.0051914,0.004887257,0.004483482,0.004514945,0.004111169,0.003513372,0.003366544,0.003078133,0.002899843,0.002653382,0.00228107,0.002139486,0.00200839,0.001788149,0.001499738,0.001164132,0.001043524,0.000896696,0.000760357,0.000907184,0.000487677,0.000398532,0.000529628,0.00065548,0.000372313,0.000288411,0.000309386,0.000755113,0.000461458,0.000665967,0.000513896,0.000545359,0.000403776,0.000393288,0.000576822,0.000398532,0.000167803,0.00034085,0.000388044,0.000393288,0.000304143,0.000194022,0.000283167,9.44E-05,0.000288411,0.000456214,9.96E-05,4.2E-05,9.96E-05,6.29E-05,0.000146827,0.000188778,0.00020451,0.00020451,0.000199266,0.000183534,0.000167803,0.000152071,0.000146827,0.00013634,0.000141584,0.000146827,0.000152071,0.000157315,0.000162559,0.000152071,0.000125852,0.000115364,0.000199266,0.000267436,4.72E-05,0.000131096,0.00020451,0.000267436,3.67E-05,0.000183534,9.44E-05,0.000120608,0,6.29E-05,4.72E-05,0.000178291,0.000288411\nSRI-0000304.txt,S=C1NN=CN1CC1=CC=CC=C1,0.522710593,0.48729628,0.456949476,0.431204203,0.410118708,0.393052271,0.380645612,0.37208327,0.367190503,0.366142053,0.368471942,0.374995631,0.385247143,0.399109982,0.416118172,0.437261914,0.461783996,0.490208642,0.521429154,0.555270791,0.591850048,0.630875689,0.671532251,0.713179017,0.754651041,0.795890076,0.835439941,0.873813213,0.908225673,0.939207372,0.964282802,0.98353351,0.996103261,1,0.996307126,0.983987838,0.963531413,0.935683415,0.899558486,0.855977913,0.805419322,0.749379667,0.689542293,0.627974977,0.564572873,0.501700819,0.440185925,0.381775608,0.328176512,0.279167298,0.235621673,0.196980464,0.163103878,0.134463718,0.110716324,0.091116133,0.074783612,0.061474121,0.050896425,0.041833157,0.034837665,0.029117788,0.024370639,0.020444776,0.017322725,0.014684125,0.012767792,0.010909705,0.009098216,0.007939097,0.006698431,0.005853846,0.00514323,0.004420964,0.003902564,0.003314267,0.002865763,0.002469682,0.002300765,0.002003705,0.001625098,0.001485304,0.001345511,0.001328037,0.001246491,0.001118347,0.000972729,0.001007677,0.000716441,0.000745564,0.000617421,0.00062907,0.000745564,0.000681493,0.000611596,0.000559173,0.000401906,0.000570823,0.000664018,0.000786338,0.000524225,0.000302886,0.000413555,0.000535874,0.000512576,0.000547524,0.000623245,0.000250463,0.000722266,0.000681493,0.000611596,0.000611596,0.00072809,0.000431029,0.000524225,0.000664018,0.0005184,0.000471803,0.000687317,0.000326184,0.000506751,0.000693142,0.000407731,0.000634895,0.000465978,0.000489277,0.000349483,0.000617421,0.000512576,0.000349483,0.00032036,0.000559173,0.000506751,0.00030871,0.000163092,0.000465978,0.000582472,0.000506751,0.000332009,0.0005184,0.000506751,0.000384432,0.000203865,0.000652369,0.000384432,0.000349483,0.000302886,0.000267937,0.000256288,0.000244638,0.000232989,0.00020969,0.000198041,0.000192216,0.000192216,0.00020969,0.000215515,0.000221339,0.000227164,0.000238814,0.000244638,0.000256288,0.000256288,0.000244638,0.000192216,0.000186391,0.000163092,0.000343659,0.000273762,0.000227164,0.000221339,0,9.9E-05,0.000302886,0.000133969,0.000180566,0.00032036,0.000372782,0.000390256,0.000343659,0.000221339\nSRI-0000462.txt,CC(=O)N\\N=C\\C1=C(C=C(C=C1)[N+]([O-])=O)[N+]([O-])=O,1,0.995948319,0.99339726,0.989045454,0.986344333,0.983643212,0.982292651,0.980641966,0.979291406,0.976590285,0.97629016,0.974789538,0.972838728,0.97163823,0.96968742,0.965785801,0.960383559,0.954831255,0.948228515,0.941475712,0.932471976,0.922567866,0.911313195,0.899008088,0.885502484,0.871246567,0.85624034,0.839733489,0.823016552,0.805279191,0.788007023,0.770164618,0.752367232,0.734975015,0.71816804,0.701466108,0.686204775,0.670763367,0.656327376,0.643527064,0.632647549,0.621798046,0.611413737,0.603640511,0.597232852,0.592445865,0.588304146,0.585963175,0.584177434,0.583817284,0.584402527,0.585918156,0.588094059,0.59103528,0.593961494,0.597878119,0.602545056,0.607257012,0.611713861,0.61677096,0.622008133,0.627440388,0.633592941,0.639250289,0.645853029,0.651555395,0.658263179,0.665331112,0.672759195,0.680277315,0.687840454,0.695673705,0.704647429,0.713756209,0.7240955,0.733294317,0.74298834,0.753117544,0.763816984,0.774951605,0.784735665,0.795029937,0.805834421,0.816248743,0.826392953,0.836372094,0.845210762,0.854019418,0.863368298,0.871231561,0.878764687,0.886042708,0.892600429,0.898437852,0.904110206,0.909452423,0.914494515,0.919491589,0.922507841,0.926274404,0.929260643,0.932757094,0.934887979,0.936568676,0.938084305,0.940320233,0.941265625,0.941355663,0.943186422,0.943441528,0.942946323,0.942961329,0.942196011,0.941010519,0.938969672,0.935338165,0.932787107,0.92947073,0.924233557,0.918591215,0.912078513,0.904560393,0.896126893,0.886552919,0.875763442,0.863338285,0.850613004,0.836567175,0.822896502,0.807650175,0.793274209,0.77843305,0.761461006,0.74402377,0.725866234,0.705667852,0.686069719,0.666291511,0.645777998,0.624184036,0.602049851,0.580515914,0.559026996,0.535797356,0.513753208,0.493029607,0.478278486,0.469694923,0.456564474,0.429628296,0.397845106,0.368357869,0.345428353,0.329056558,0.316781464,0.305856931,0.29484236,0.282972434,0.26978196,0.255225919,0.238704062,0.220066328,0.198112217,0.173547022,0.148036435,0.126682573,0.111481265,0.099341227,0.0877114,0.078017377,0.068098261,0.058779393,0.049220426,0.04156725,0.034754423,0.02756644,0.021443899,0.015426402,0.009213824,0.005102117,0\nSRI-1052982-001.txt,O=C(CCCCCn1nnc2ccccc2c1=O)Nc1nnc(s1)C1CCC1,0.993325324,0.993325324,1,1,1,1,0.993325324,0.983313309,0.96328928,0.945267655,0.920571352,0.892537712,0.869176345,0.837805366,0.805099453,0.764717661,0.723334668,0.680950474,0.642904819,0.60886397,0.585168869,0.570484581,0.563142438,0.559805099,0.561473769,0.56514484,0.570150848,0.576825524,0.582498999,0.587171272,0.591409692,0.595414497,0.599819784,0.600820985,0.602356161,0.603490856,0.600287011,0.595314377,0.587438259,0.580196235,0.569316513,0.558503538,0.547089841,0.536043252,0.525697504,0.514951275,0.50473902,0.494293152,0.482478975,0.471365639,0.458817247,0.448404752,0.438059004,0.427579762,0.41670004,0.407655854,0.399179015,0.389700975,0.380323054,0.372713923,0.36607262,0.358897343,0.352089174,0.346215459,0.339006808,0.332966226,0.327726605,0.322720598,0.318348685,0.312708584,0.307101856,0.30112802,0.296389,0.290715525,0.283573622,0.277065812,0.27082499,0.266720064,0.263883327,0.25917768,0.25453878,0.252603124,0.249432653,0.244359899,0.238319317,0.230643439,0.222199973,0.213890001,0.204311841,0.195000667,0.188859965,0.182619143,0.178380724,0.176545188,0.172773995,0.172106528,0.169102924,0.162928848,0.153751168,0.140835669,0.125984515,0.110566013,0.095281004,0.080630089,0.068615672,0.059671606,0.047890802,0.039947938,0.034074222,0.026798825,0.022193299,0.018588973,0.014283807,0.012915499,0.011947671,0.010312375,0.008576959,0.006374316,0.005406488,0.005106127,0.004605527,0.004472033,0.005373114,0.003404085,0.004004806,0.003704445,0.004405286,0.003938059,0.00236951,0.004672273,0.003837939,0.002703244,0.000500601,0.001268188,0.003270591,0.003170471,0.002669871,0.001168068,0.000934455,0.000867708,0.000634094,0.002236017,0.002870111,0.001368309,0.001668669,0.002135896,0.001835536,0.001468429,0.001168068,0.000767588,0.000400481,0.000133494,3.34E-05,6.67E-05,0.000166867,0.00030036,0.000433854,0.000600721,0.000700841,0.000800961,0.000834335,0.000901081,0.000934455,0.000700841,0.000333734,0,0.000133494,0.001201442,0.001234815,0.000967828,0.001201442,0.001034575,0.001868909,0.000767588,0.001868909,6.67E-05,0.001268188,0.001201442,0.00030036,0.001301562,0.001501802\nSRI-1052992-001.txt,COC(=O)C(CCSC)NC(=O)CCc1nc(no1)-c1ccc(OC)cc1,0.606886964,0.558763769,0.513314084,0.471874666,0.433108758,0.401026628,0.375628275,0.356913699,0.343412469,0.333921506,0.329109186,0.327772431,0.329777564,0.333921506,0.340070581,0.348625815,0.35958721,0.372553738,0.38926318,0.407977756,0.429232168,0.453561116,0.480563576,0.510239547,0.541653299,0.575473211,0.610763555,0.647658004,0.684285103,0.721941504,0.759691477,0.795797241,0.831368303,0.86461341,0.895211742,0.923270238,0.948173992,0.967824297,0.983196984,0.993650412,0.999184579,1,0.995521869,0.984600577,0.967984708,0.946289167,0.918391081,0.884557801,0.846620682,0.803296439,0.758074003,0.711020212,0.663217838,0.618182547,0.575219228,0.534822479,0.496791787,0.461113785,0.427280505,0.396842584,0.369198481,0.345083414,0.323120522,0.302400813,0.282977756,0.264477061,0.243476634,0.222396,0.200366271,0.179980751,0.164541226,0.153740242,0.144409689,0.134504331,0.122019035,0.105576944,0.089014544,0.073575019,0.059512352,0.048123195,0.040022457,0.034007058,0.029448722,0.026922254,0.02454283,0.022658004,0.021414822,0.019636937,0.018326917,0.017391188,0.016495562,0.016000962,0.015666774,0.014784515,0.014383488,0.014530531,0.014410224,0.013621538,0.012806117,0.01229815,0.011335686,0.00994546,0.00929045,0.00863544,0.007472463,0.005908459,0.005494065,0.004585071,0.003823121,0.003529034,0.003395359,0.00360924,0.003368624,0.002713614,0.002900759,0.002606673,0.002740349,0.002379425,0.002793819,0.002205646,0.001550636,0.002058603,0.00245963,0.002272484,0.001657577,0.001510534,0.001831355,0.002178911,0.001283285,0.001550636,0.001604107,0.00175115,0.001564004,0.001483799,0.001403593,0.001403593,0.00131002,0.001056037,0.001416961,0.001443696,0.000975831,0.001189712,0.001216447,0.001296653,0.001082772,0.000895626,0.000802053,0.000788686,0.000748583,0.000681745,0.00060154,0.000507967,0.000414394,0.000387659,0.000320821,0.000253984,0.000213881,0.000160411,0.000120308,4.01E-05,0,0,0,0,0,0,2.67E-05,0.000588172,0.000414394,0.00010694,0.00010694,0.000147043,0,0.000160411,0.000253984,0.000147043,5.35E-05,0,4.01E-05,0.000294086,8.02E-05\nSRI-1053344-001.txt,CC(C)C[C@H](NS(=O)(=O)c1ccc(C)cc1)C(O)=O,1,0.998670172,0.996453791,0.992464305,0.984485334,0.972516878,0.954785831,0.932533368,0.904606969,0.871848861,0.832929213,0.788202648,0.738245424,0.682835904,0.623658536,0.561422562,0.498122725,0.435709441,0.37511359,0.318418568,0.267752102,0.22315852,0.185081097,0.15285492,0.126568644,0.105025422,0.087870634,0.074262056,0.0635791,0.055502609,0.049456322,0.045497866,0.04259884,0.040932121,0.040431219,0.040940987,0.042425962,0.044438436,0.047213344,0.050941297,0.055094795,0.060103815,0.065427562,0.071172421,0.07741375,0.084382051,0.092081758,0.100659152,0.109812804,0.118837907,0.127047382,0.13429938,0.141436126,0.149020581,0.157965894,0.168369586,0.178804307,0.187696427,0.192461646,0.192089294,0.187208823,0.180244954,0.174030223,0.170869664,0.17149025,0.1731747,0.171437057,0.162203614,0.143878578,0.118993054,0.092276799,0.067971967,0.048033405,0.033635795,0.023316326,0.016356891,0.011463122,0.008382352,0.006081749,0.004503686,0.003537344,0.002686254,0.002296171,0.001857327,0.001648987,0.001547034,0.001077161,0.001015102,0.000926447,0.00088212,0.000753569,0.000740271,0.000602856,0.000580692,0.000638318,0.000554095,0.000571826,0.000314726,0.000487604,0.00041668,0.000474305,0.000558528,0.000381218,0.000434411,0.000407814,0.000425545,0.000376785,0.000483171,0.000310293,0.000110819,0.000354621,0.000319159,0.000199474,0.000217205,0.000323592,0.000403381,0.000376785,0.00038565,0.000456574,0.000429978,0.000487604,0.000168445,0.000407814,0.000296995,0.000305861,0.000301428,0.00020834,0.000381218,0.000279264,0.00012855,0.00017731,0.000341323,0.000270398,0.000248235,0.000434411,0.000367919,0.000328024,0.000274831,7.09E-05,6.21E-05,0.000226071,0.000230504,0.000243802,0.000265966,0.000199474,0.000203907,0.000243802,0.000279264,0.000310293,0.000279264,0.000226071,0.00017731,0.000132983,9.75E-05,7.09E-05,6.21E-05,5.32E-05,5.32E-05,5.32E-05,6.65E-05,7.54E-05,7.98E-05,9.75E-05,0.000101954,0.000119685,0.00017731,0.000243802,0.000305861,0.000359054,0.000124117,3.55E-05,4.43E-06,0.000199474,0.000354621,0.00028813,0.000279264,0.000190609,0.000137416,0.000155147,0.000155147,0\nSRI-1053354-001.txt,C[C@H](NC(=O)NCCc1c[nH]c2ccccc12)C(O)=O,1,0.987922705,0.903381643,0.855072464,0.867149758,0.79468599,0.770531401,0.710144928,0.673913043,0.577294686,0.480676329,0.359903382,0.347826087,0.251207729,0.118357488,0.142512077,0.094202899,0.082125604,0.04589372,0.082125604,0.033816425,0.057971014,0.04589372,0.070048309,0.070048309,0.070048309,0.041062802,0.085748792,0.099033816,0.088164251,0.09178744,0.106280193,0.107487923,0.140096618,0.134057971,0.101449275,0.134057971,0.11352657,0.123188406,0.164251208,0.167874396,0.160628019,0.176328502,0.109903382,0.183574879,0.176328502,0.171497585,0.171497585,0.190821256,0.185990338,0.229468599,0.208937198,0.18236715,0.194444444,0.200483092,0.185990338,0.166666667,0.164251208,0.187198068,0.18236715,0.164251208,0.15821256,0.179951691,0.184782609,0.190821256,0.171497585,0.196859903,0.189613527,0.171497585,0.200483092,0.189613527,0.190821256,0.198067633,0.132850242,0.149758454,0.132850242,0.131642512,0.123188406,0.112318841,0.132850242,0.111111111,0.119565217,0.077294686,0.1147343,0.111111111,0.134057971,0.112318841,0.115942029,0.095410628,0.102657005,0.065217391,0.073671498,0.084541063,0.115942029,0.074879227,0.056763285,0.078502415,0.077294686,0.071256039,0.043478261,0.070048309,0.06884058,0.095410628,0.070048309,0.056763285,0.118357488,0.101449275,0.094202899,0.073671498,0.085748792,0.107487923,0.131642512,0.15821256,0.02294686,0.059178744,0.107487923,0.176328502,0.123188406,0.107487923,0.132850242,0.120772947,0.105072464,0.130434783,0.097826087,0.036231884,0.073671498,0.149758454,0.096618357,0.108695652,0.105072464,0.06763285,0.09178744,0.076086957,0.105072464,0.053140097,0.109903382,0.130434783,0.121980676,0.103864734,0.117149758,0.043478261,0.028985507,0.089371981,0.080917874,0.054347826,0.055555556,0.053140097,0.042270531,0.032608696,0.018115942,0.006038647,0.001207729,0,0.001207729,0.003623188,0.004830918,0.004830918,0.010869565,0.014492754,0.020531401,0.024154589,0.028985507,0.030193237,0.032608696,0.038647343,0.056763285,0.070048309,0.085748792,0.050724638,0.033816425,0.039855072,0.09178744,0.077294686,0.048309179,0.041062802,0.078502415,0.037439614,0.032608696,0.028985507,0.089371981,0.064009662\nSRI-1052853-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)Cc1csc(n1)-c1ccc(Cl)cc1,1,0.994400982,0.984940573,0.966405894,0.936866249,0.894777082,0.840717601,0.777197711,0.707113455,0.634422761,0.563682068,0.498656236,0.439827936,0.388316974,0.344451567,0.307362901,0.276066323,0.250175693,0.228513287,0.210461282,0.195421162,0.182775105,0.172407269,0.163583989,0.156556257,0.150957239,0.14657456,0.143369605,0.141149305,0.139681976,0.139141381,0.139374995,0.140550789,0.142589604,0.145551291,0.149503425,0.154281897,0.159851954,0.166203943,0.173179547,0.180771043,0.188966846,0.197799779,0.206808405,0.216355696,0.226258234,0.236324882,0.246536332,0.256763227,0.266912895,0.276873354,0.286849259,0.29639848,0.305482404,0.314286376,0.322275595,0.329648922,0.336699823,0.344181269,0.351575834,0.35886228,0.36577224,0.371454277,0.375993343,0.378578545,0.379043842,0.377530177,0.375904531,0.375226857,0.376356314,0.377989682,0.377765722,0.372962151,0.363561593,0.351162665,0.337806112,0.325252728,0.31379791,0.30383552,0.294527636,0.285594307,0.276956374,0.268293342,0.259425657,0.250152525,0.240908354,0.23121433,0.221352337,0.211606184,0.202097508,0.19297304,0.184045503,0.175322619,0.166663449,0.157834377,0.148665503,0.139178064,0.129082456,0.118527343,0.10758802,0.096361025,0.084967989,0.073713964,0.063000533,0.053097994,0.044247685,0.036468912,0.029902616,0.024324836,0.019891958,0.016268042,0.013354622,0.010931599,0.009145706,0.007537436,0.006398326,0.005342235,0.004618224,0.00399654,0.003284113,0.002816885,0.002544657,0.002106389,0.001770448,0.001548418,0.001378517,0.001044506,0.000990447,0.000919011,0.000762625,0.000706635,0.000590793,0.000517426,0.000511634,0.000418961,0.00038807,0.000370694,0.000328218,0.000254852,0.00024906,0.000260644,0.000276089,0.000202723,0.000245198,0.000214307,0.000206584,0.000200792,0.000202723,0.000200792,0.000191139,0.000181485,0.000167971,0.000152525,0.000140941,0.000129357,0.000117772,0.000108119,9.65E-05,8.5E-05,7.53E-05,6.56E-05,5.6E-05,4.83E-05,4.44E-05,3.86E-05,1.93E-05,1.54E-05,0.000125495,6.56E-05,0.00011198,3.09E-05,2.12E-05,0,3.48E-05,2.12E-05,0.000121634,0.000113911,5.41E-05,5.79E-05,3.86E-05,6.18E-05\nSRI-0000660.txt,CNC(=O)NCC1OC(COC(C)=O)(OC2OC(CNC(C)=O)C(O)C(OC(C)=O)C2OC(C)=O)C(OC(C)=O)C1OC(C)=O,1,0.949403686,0.869895193,0.855439104,0.812070835,0.772316588,0.754246476,0.710878207,0.671123961,0.638597759,0.627755692,0.606071558,0.573545356,0.555475244,0.508492953,0.479580773,0.468738706,0.432598482,0.407300325,0.392844236,0.367546079,0.349475967,0.3386339,0.302493675,0.284423563,0.262739429,0.245753524,0.226599205,0.205276473,0.184315143,0.161546802,0.147813516,0.135164438,0.108782074,0.110589086,0.091796169,0.082761113,0.065413806,0.065413806,0.044452476,0.052764727,0.047343694,0.045898085,0.037224431,0.042284062,0.028189375,0.029634984,0.03541742,0.024575352,0.021322732,0.018431514,0.016263101,0.019877123,0.01770871,0.024575352,0.025659559,0.022406939,0.027827973,0.026020961,0.006866643,0.020599928,0.016985905,0.022406939,0.031080593,0.004698229,0.030357788,0.010119263,0.020238525,0.02421395,0.036501626,0.024575352,0.028912179,0.034694615,0.018792917,0.02746657,0.035778822,0.038308638,0.024575352,0.020238525,0.033971811,0.023852548,0.022406939,0.027105168,0.023491146,0.016985905,0.012287676,0.029273581,0.022406939,0.015901699,0.015178894,0.020238525,0.023491146,0.032164799,0.022406939,0.00650524,0.019877123,0.015178894,0.014817492,0.011926274,0.025298157,0.030357788,0.013010481,0.023852548,0.016985905,0.015540296,0.021322732,0.024575352,0.033610408,0.019154319,0.022768341,0.014817492,0.02746657,0.028550777,0.021322732,0.012287676,0.017347308,0.031803397,0.03071919,0.012287676,0.019515721,0.01770871,0.03071919,0.029273581,0.019154319,0.015540296,0.012287676,0.023852548,0.01445609,0.018792917,0.01770871,0.022045537,0.030357788,0.019515721,0.008673654,0.00975786,0.021684134,0.015178894,0.015540296,0.019515721,0.015178894,0,0.014094687,0.008673654,0.012287676,0.008673654,0.013733285,0.018431514,0.022406939,0.022045537,0.019154319,0.017347308,0.016985905,0.016624503,0.015901699,0.015178894,0.014817492,0.015178894,0.014817492,0.013733285,0.013733285,0.013371883,0.012649078,0.011926274,0.013371883,0.01770871,0.025659559,0.032164799,0.02421395,0.039754246,0.02096133,0.019877123,0.023852548,0.005782436,0.018792917,0.023852548,0.014817492,0.019877123,0.015901699,0.015178894,0.032887604,0.014817492\nSRI-1053295-001.txt,CCC(NC(=O)CCn1nnc2ccccc2c1=O)C(O)=O,0.9786489,0.987100377,0.993871444,0.998665556,1,0.998047758,0.990560046,0.978846596,0.961745947,0.941432748,0.917758728,0.891662939,0.861366124,0.823902852,0.776826643,0.72043404,0.657566914,0.593019377,0.531412558,0.474896395,0.426238623,0.385612225,0.352448828,0.325611682,0.303964039,0.286208524,0.271134252,0.257431492,0.245166966,0.233816781,0.223494612,0.21434873,0.206423617,0.199706917,0.193615428,0.187867435,0.182289955,0.17672483,0.171476018,0.166859832,0.163269189,0.1610723,0.160751045,0.162162095,0.165377116,0.170257721,0.176497481,0.183817152,0.191944902,0.200608902,0.209920353,0.219105774,0.228345562,0.237748447,0.246926455,0.25607975,0.264906848,0.273259478,0.281167292,0.288600638,0.294976314,0.300299261,0.304557125,0.307574451,0.309380892,0.309721917,0.30937595,0.308051391,0.305768009,0.302718558,0.299365151,0.294941717,0.290006746,0.28464426,0.279034654,0.273640041,0.268438182,0.263745388,0.260112736,0.256566575,0.253391093,0.249775739,0.245260871,0.239409089,0.231768163,0.223047326,0.213328127,0.203591631,0.194094839,0.185841058,0.179326996,0.174644087,0.171915891,0.170625928,0.169308783,0.166348295,0.160407549,0.150841564,0.138117396,0.122882497,0.106720901,0.090791597,0.075766749,0.062479149,0.051022703,0.041471545,0.033650223,0.02723995,0.022149295,0.018089126,0.014856807,0.012140967,0.010060223,0.008379812,0.00696629,0.005691155,0.004818825,0.004084881,0.003370706,0.002747966,0.002406941,0.002182063,0.001838567,0.001551909,0.001485186,0.001228182,0.001045314,0.001010718,0.000852561,0.000751242,0.000716646,0.000716646,0.000617798,0.000578259,0.000457171,0.000442343,0.000523893,0.000333611,0.000397862,0.00041516,0.000375621,0.000323726,0.000296543,0.000308899,0.000299014,0.000313841,0.000336082,0.000321255,0.000266889,0.000182868,0.000113675,8.65E-05,6.67E-05,5.19E-05,4.7E-05,6.43E-05,8.4E-05,0.000106261,0.000126031,0.000140858,0.000158156,0.000175455,0.000190282,0.000187811,0.000180397,0.000160627,0.000158156,0.000143329,0.000135916,6.67E-05,8.15E-05,0.000148272,0.0001458,0.000180397,0.000234763,0.0001458,7.66E-05,0,0.000153214,7.66E-05,9.39E-05\nSRI-0000066.txt,CCOC(=O)C1=CC=C(C=C1)N(CCO)CCO,0.183375013,0.189689753,0.196650318,0.203539124,0.210069139,0.216168604,0.221622242,0.22621478,0.229228633,0.231022593,0.230807318,0.229013358,0.225461317,0.219900041,0.212795959,0.204364346,0.194138774,0.182765067,0.170135588,0.156357974,0.142113931,0.127439337,0.112872381,0.098843613,0.085855342,0.07383581,0.063394962,0.054529211,0.047403602,0.041519412,0.036984281,0.033575757,0.031225669,0.02941377,0.028301514,0.027731035,0.027264606,0.027336364,0.027989365,0.028932988,0.030217464,0.03229487,0.034720304,0.037655222,0.04155888,0.045699339,0.050783422,0.056674787,0.063402138,0.071069523,0.079572894,0.088876371,0.099198817,0.110708865,0.122979552,0.136201038,0.150563483,0.165876726,0.18187885,0.198925059,0.217051232,0.235554136,0.255079598,0.275067901,0.295608744,0.316795413,0.338452099,0.360202072,0.382504584,0.404943436,0.427342822,0.450405973,0.473540883,0.49702382,0.521281749,0.545679606,0.570924212,0.596836172,0.623175094,0.650138314,0.677359865,0.705377934,0.732958276,0.760893823,0.788445462,0.815562963,0.842235561,0.867548338,0.891827794,0.914133894,0.935090936,0.953834231,0.9697933,0.982526829,0.992049169,0.997969237,1,0.998094814,0.991604267,0.98038484,0.964544173,0.944096616,0.91853986,0.888720655,0.854717936,0.816711097,0.775446427,0.731523108,0.684898085,0.636794839,0.588497845,0.539698543,0.49165988,0.444722708,0.399231467,0.356011381,0.315109091,0.277030494,0.242098503,0.209764166,0.180806062,0.154843872,0.131701786,0.111455153,0.093598074,0.077997797,0.064772723,0.053492302,0.044005841,0.036044246,0.029657748,0.024211285,0.019740737,0.015987772,0.012894985,0.010426496,0.008395733,0.006687883,0.005446463,0.004334208,0.003569981,0.002981562,0.002407494,0.001862131,0.001524866,0.001334706,0.001255772,0.001270124,0.001262948,0.001097904,0.000900568,0.000731936,0.000592007,0.000495133,0.00043055,0.000387495,0.000358792,0.000330089,0.000304973,0.000290622,0.000279858,0.000272682,0.000269094,0.000279858,0.000294209,0.000340852,0.000337264,0.000215275,0.000182984,0.000236803,0.000168632,0.00034444,0.000322913,0.000215275,0.000118401,0.000186572,0,0.000254742,0.000157868,0.000218863,0.000125577\nSRI-1053181-001.txt,O=C1Nc2ccccc2\\C1=N\\N=C\\c1cccc(Oc2ccccc2)c1,1,0.996429005,0.992143811,0.989287015,0.986430219,0.983573423,0.981430826,0.980002428,0.97857403,0.977145632,0.975717234,0.972860438,0.970717841,0.965718448,0.962361713,0.957148061,0.952291507,0.946720755,0.940721484,0.932079676,0.921081012,0.906654192,0.889656256,0.868515966,0.844947399,0.817950677,0.790382596,0.761100438,0.73096124,0.700893463,0.671325625,0.641972046,0.613689766,0.587228694,0.561081869,0.536684831,0.513194826,0.492918717,0.474299549,0.457437311,0.442731954,0.430147768,0.419427641,0.411292914,0.405007963,0.400479942,0.397687424,0.395959062,0.3949449,0.394294978,0.392702315,0.389759815,0.384960398,0.377911254,0.369947935,0.360984738,0.351385903,0.341615661,0.331524029,0.321168144,0.311205068,0.301841919,0.292843012,0.284236914,0.276930658,0.270902819,0.265653456,0.260968311,0.257568724,0.2548262,0.253112122,0.251298057,0.2502339,0.249512559,0.24890549,0.249076898,0.249298299,0.250141054,0.25177657,0.254633366,0.257604434,0.261568238,0.265996272,0.271531314,0.277480592,0.28404408,0.291278916,0.298927987,0.307169844,0.315325996,0.323932094,0.332945285,0.341351407,0.349771813,0.358370769,0.366584058,0.374611654,0.382374997,0.389752673,0.397080355,0.403543855,0.409543127,0.415071027,0.420384668,0.425284073,0.429390717,0.432804588,0.435625674,0.438246784,0.43998943,0.440610783,0.440967882,0.440575073,0.439760886,0.438175364,0.43596849,0.433190255,0.429933508,0.425891142,0.421898769,0.416713685,0.411878558,0.405972132,0.399708607,0.392088104,0.384567588,0.376561418,0.367398244,0.358799289,0.3496504,0.340387239,0.331016948,0.320496797,0.309583836,0.298956555,0.287479378,0.276437861,0.265317783,0.254876194,0.243784683,0.23318597,0.222422991,0.212281366,0.201396973,0.191333909,0.181642229,0.174635937,0.170450731,0.164187206,0.151724433,0.137026218,0.123442153,0.113014848,0.105565753,0.100094988,0.095338423,0.090589,0.085511045,0.080047423,0.074133855,0.067627502,0.060249827,0.051672297,0.042616254,0.03363163,0.026839598,0.022675818,0.01966904,0.016633694,0.014491098,0.012248513,0.010770121,0.008763222,0.007641929,0.006070691,0.004856553,0.003849533,0.0025854,0.001692652,0.000799903,0\nSRI-1053191-001.txt,OC(=O)[C@@H](NC(=O)Cn1nnc2ccccc2c1=O)c1ccccc1,1,0.993765365,0.986574281,0.97828505,0.968224617,0.954657201,0.936697202,0.915123949,0.889618625,0.862023281,0.831912828,0.801023047,0.767263916,0.727836936,0.682033625,0.629535165,0.572608699,0.514867479,0.459747639,0.409622592,0.366546933,0.330556087,0.301118692,0.277349147,0.258680666,0.24362544,0.230908202,0.219707114,0.209480187,0.200333695,0.192150736,0.185165112,0.178990698,0.1736948,0.168639787,0.164208237,0.159932553,0.155798565,0.152040072,0.148476411,0.145369721,0.143113208,0.142376388,0.143332837,0.145862115,0.149471827,0.153974225,0.159160308,0.164891921,0.171392236,0.17777211,0.184385782,0.191300559,0.198466847,0.205746491,0.213224511,0.220373086,0.227309117,0.233990095,0.239962592,0.245233693,0.249884872,0.253338718,0.255843199,0.257377061,0.257872998,0.257490418,0.25627183,0.254511254,0.252265369,0.249222442,0.245527712,0.241067823,0.236391847,0.231510411,0.226639603,0.222123035,0.217992589,0.214676897,0.211818175,0.209235761,0.206224716,0.202377663,0.197450176,0.191261593,0.183716267,0.175752938,0.167683337,0.159907756,0.153116963,0.147852948,0.144154676,0.14218864,0.141253445,0.14020135,0.137788972,0.132989011,0.125309075,0.114763332,0.102255096,0.088946276,0.075874797,0.063522427,0.052505544,0.042877284,0.034956464,0.028427809,0.023227557,0.018774753,0.0154874,0.012756205,0.010435929,0.008657641,0.007300899,0.006092939,0.004998335,0.004211921,0.003634509,0.003142114,0.002493854,0.002065223,0.001838509,0.001431132,0.001374454,0.001300063,0.000903314,0.000924568,0.000789957,0.000503022,0.000644718,0.000556158,0.000449886,0.00048531,0.00048531,0.000403834,0.000467598,0.000329444,0.000304647,0.000304647,0.000308189,0.00029402,0.000170035,0.000145239,0.000166493,0.000198375,0.00019129,0.000180663,0.000162951,0.000123984,9.92E-05,7.08E-05,5.31E-05,4.25E-05,4.25E-05,4.61E-05,4.61E-05,4.61E-05,4.61E-05,4.96E-05,4.61E-05,4.25E-05,3.54E-05,1.77E-05,0,3.54E-05,0.00010273,0.000152323,0.00020546,0.000170035,0.000113357,0.000148781,0.000212544,5.67E-05,0.000237341,0.000216087,0.000162951,0.000141696,3.19E-05,5.31E-05,0.000127527,4.25E-05\nSRI-1052959-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)COc1ccc2CCC(=O)Nc2c1,1,0.980076326,0.950211355,0.907344647,0.855645794,0.794354822,0.725669497,0.652054603,0.577453796,0.505420472,0.438460496,0.379962946,0.329825124,0.288560525,0.255635113,0.230186214,0.211248454,0.19765106,0.188551898,0.182574796,0.179473276,0.178199804,0.178590061,0.179945693,0.182287238,0.185183359,0.188490278,0.191982056,0.195724421,0.199468839,0.202847648,0.206341479,0.209403974,0.212119345,0.214434188,0.216153375,0.217472035,0.218437409,0.21886053,0.219031011,0.218646916,0.217864346,0.216970862,0.215574151,0.213785128,0.211764005,0.209447108,0.2066352,0.203872587,0.201001113,0.198111154,0.195399891,0.192830353,0.190427188,0.18830542,0.186163111,0.184045451,0.182603552,0.181868224,0.18189698,0.182453611,0.183234126,0.183408715,0.182622038,0.180389354,0.176435429,0.171002633,0.165376763,0.161016148,0.158329533,0.156271438,0.153098029,0.146519108,0.136086908,0.122292332,0.106725164,0.090595204,0.074884258,0.060514565,0.04808589,0.037670121,0.029300124,0.022680124,0.017625262,0.013527558,0.010680732,0.008324809,0.006529625,0.005176047,0.004155216,0.003315135,0.002748235,0.002294303,0.001943072,0.001684269,0.001480925,0.001324822,0.001125585,0.001191312,0.001037263,0.000946888,0.000975644,0.000860621,0.00094278,0.000885268,0.00069014,0.000741489,0.000889376,0.000692194,0.000694248,0.000653168,0.000581278,0.000499119,0.000550469,0.000573062,0.00059771,0.000455985,0.000447769,0.000484741,0.000589494,0.000453931,0.000299882,0.000441607,0.000429283,0.000427229,0.000464201,0.00038615,0.000384096,0.000277288,0.000279342,0.000275234,0.000264964,0.000256748,0.000238262,0.00034507,0.000250586,0.000285504,0.000160211,0.000139671,0.000227993,0.000112969,0.000137617,0.000246478,0.000223885,0.000178697,0.000197183,0.000188967,0.000168427,0.000141725,0.000100645,6.98E-05,5.13E-05,5.34E-05,5.55E-05,5.34E-05,6.78E-05,7.81E-05,8.63E-05,9.24E-05,9.86E-05,0.000100645,0.000102699,0.000100645,9.45E-05,9.04E-05,7.19E-05,1.23E-05,6.16E-05,9.24E-05,7.19E-05,0.000182805,0.000180751,0.000186913,0.000131455,9.04E-05,0.000139671,0.000151995,9.04E-05,8.22E-05,0,0.000129401\nSRI-1052831-001.txt,CC(Oc1ccc2c(C)c(C)c(=O)oc2c1)C(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(O)=O,1,0.991197935,0.969547435,0.936483269,0.895326362,0.841256535,0.778674822,0.709741435,0.636939009,0.563137082,0.493107467,0.429703583,0.373795963,0.326319625,0.28682318,0.254758516,0.229351823,0.208878156,0.192241286,0.178473954,0.166673384,0.156549397,0.147134734,0.138751816,0.131610214,0.125693807,0.121260533,0.118229785,0.116601565,0.116063123,0.116124383,0.116380707,0.116685394,0.117031995,0.117639757,0.118932661,0.12147333,0.125300455,0.130312473,0.136415883,0.143457535,0.151202062,0.159594654,0.168312889,0.177497022,0.187059998,0.196618137,0.20633265,0.215987516,0.225750392,0.235155382,0.244374981,0.253225409,0.26190173,0.269757492,0.277173151,0.283724724,0.290000629,0.295904138,0.301989815,0.307753071,0.312879549,0.317166122,0.320190421,0.321739649,0.32136403,0.319695507,0.317820635,0.316951713,0.317862549,0.319250567,0.318702453,0.314651246,0.306452107,0.296237843,0.285843023,0.277140909,0.270532912,0.266786392,0.265280691,0.265798175,0.268092193,0.271996698,0.277327912,0.283450667,0.290352066,0.297787071,0.305193057,0.312402367,0.319234446,0.325599016,0.331662123,0.337004622,0.341837697,0.346408,0.350435025,0.353818823,0.356689972,0.358835677,0.359775531,0.359619158,0.358155371,0.355039182,0.350244797,0.344126879,0.336537113,0.327902707,0.318613788,0.308739677,0.29845448,0.288238604,0.278083987,0.267750428,0.257278227,0.246591618,0.235434275,0.223435417,0.21085459,0.197419351,0.182978161,0.16768417,0.152135468,0.136249837,0.120601184,0.105379738,0.090880513,0.077493636,0.065533468,0.054880713,0.045585345,0.037802128,0.031152216,0.025577575,0.020825105,0.017057628,0.013910809,0.011376588,0.009440456,0.007833193,0.006419381,0.005468242,0.004547733,0.003875488,0.003341883,0.002896943,0.002577748,0.002416538,0.00235689,0.00225694,0.002018349,0.001736231,0.001486356,0.001309025,0.001201014,0.001131694,0.001080107,0.001034968,0.000989829,0.000943078,0.000894715,0.00084474,0.000785093,0.000717384,0.000643228,0.00057552,0.000519096,0.000490078,0.000480406,0.000409473,0.000333705,0.00035305,0.00026116,0.000301463,0.000177331,0.000188616,0.000117683,5.16E-05,4.84E-05,0,2.26E-05,4.51E-05\nSRI-1052949-001.txt,Cc1ccccc1Oc1ccc(cc1)S(=O)(=O)NC(Cc1ccccc1)C(O)=O,0.738112523,0.691651543,0.65353902,0.624500907,0.603811252,0.591107078,0.587114338,0.590381125,0.601270417,0.617967332,0.640108893,0.667332123,0.697822142,0.731252269,0.766969147,0.803194192,0.83938294,0.87415608,0.907005445,0.936333938,0.960943739,0.980653358,0.994010889,1,0.99800363,0.988348457,0.970381125,0.943920145,0.910127042,0.869038113,0.821887477,0.771651543,0.719263158,0.666889292,0.616954628,0.569586207,0.525745917,0.486043557,0.449956443,0.417702359,0.387778584,0.361154265,0.33723049,0.316090744,0.297121597,0.279012704,0.260903811,0.243473684,0.227517241,0.213901996,0.202784029,0.192399274,0.181190563,0.168540835,0.154758621,0.140359347,0.126417423,0.113397459,0.102519056,0.094018149,0.087016334,0.080493648,0.072874773,0.06384392,0.054540835,0.045633394,0.037789474,0.031034483,0.025909256,0.021716878,0.018166969,0.015789474,0.013560799,0.011637024,0.010065336,0.008816697,0.007771325,0.006758621,0.005978221,0.005488203,0.005027223,0.004540835,0.004250454,0.003771325,0.003549909,0.003274047,0.003143376,0.002845735,0.002747731,0.002471869,0.002424682,0.002279492,0.002166969,0.002145191,0.002050817,0.001887477,0.001720508,0.001676951,0.001582577,0.001564428,0.001401089,0.001321234,0.001154265,0.001219601,0.001096189,0.001121597,0.000911071,0.000936479,0.000664247,0.000820327,0.000802178,0.000624319,0.00076225,0.000747731,0.000558984,0.000508167,0.000417423,0.000627949,0.000381125,0.000580762,0.000569873,0.00046824,0.000533575,0.000515426,0.000548094,0.000627949,0.000529946,0.000558984,0.000406534,0.000511797,0.000435572,0.00030127,0.000261343,0.000217786,0.000558984,0.000431942,0.000410163,0.000239564,0.000355717,0.000421053,0.00030853,0.000275862,0.000203267,0.000235935,0.000254083,0.0003049,0.000297641,0.000290381,0.000261343,0.000181488,0.000134301,0.000101633,6.53E-05,4.36E-05,4.72E-05,6.9E-05,9.07E-05,0.000116152,0.000134301,0.00014882,0.000163339,0.000174229,0.000174229,0.00015971,0.000130672,8.35E-05,6.17E-05,3.27E-05,0.000163339,0.000101633,0.00014882,0.000112523,0.000294011,0.000127042,0,0.000108893,8.35E-05,0.000225045,0.000239564,0.000192377,0.00015971\nSRI-1053326-001.txt,COc1ccc(CCN2C(=O)NC(CC(O)=O)C2=O)cc1,0.988310543,0.997573886,1,0.99735333,0.985553595,0.96426996,0.932068813,0.888619321,0.835465373,0.76940891,0.693317159,0.612042347,0.526025584,0.440229378,0.358954566,0.286832819,0.225187472,0.174018527,0.133215704,0.102007058,0.077966476,0.060652845,0.048081165,0.039038377,0.032642258,0.028451698,0.025143361,0.023279665,0.022088663,0.021548302,0.021823996,0.022342303,0.023742832,0.025540362,0.027205558,0.029598588,0.032256286,0.035101456,0.038531098,0.042633436,0.046504191,0.050782973,0.055458756,0.060266873,0.066056462,0.072220997,0.078032642,0.084219232,0.090549184,0.096393913,0.10229378,0.108127481,0.113354654,0.118945743,0.124029554,0.128286281,0.130723423,0.131539479,0.129929422,0.12644464,0.121482135,0.117390825,0.113917071,0.111160124,0.10588884,0.096360829,0.08338112,0.067699603,0.051985002,0.037902514,0.026742391,0.018284076,0.012472431,0.008866343,0.006252757,0.005017644,0.003561976,0.002558447,0.001709307,0.002106308,0.001576974,0.001764446,0.000981473,0.000926334,0.000871195,0.000760918,0.000661667,0.000827084,0.000540362,0.000330834,0.000595501,0.000639612,0.000430084,0.000231584,0.000264667,0.000231584,0.000341861,0.000540362,0.000805029,0.000209528,0.000143361,0.00029775,0.000341861,0.000209528,0,0.000308778,0.000518306,0.000452139,0.000794001,8.82E-05,0.000253639,0.000154389,0.000474195,0.000474195,0.000518306,0.000573445,0.000816056,3.31E-05,0.00029775,0.000253639,0.000485223,0.00065064,0.000606528,0.000694751,0.000121306,0,0,0.000419056,0.000165417,0.00029775,0.000518306,0.000408028,9.93E-05,0.000617556,0.000330834,0.000860168,0,9.93E-05,0,0.000253639,0.000253639,0.000529334,0.000352889,6.62E-05,0.000275695,0.000264667,0.000209528,0.000187472,0.000165417,0.000154389,0.000110278,0.000110278,0.000121306,0.000110278,7.72E-05,3.31E-05,0,0,0,0,0,0,0,0,0,0,2.21E-05,0.000573445,0.000330834,0.000253639,0,0.000397,0.000496251,0.000187472,0.000220556,0.00029775,0.000121306,0.000408028,0.000176445,0.000419056,0.000363917\nSRI-0000264.txt,COC(C1=NC2=C(N1)C=CC(Cl)=C2)C1=CC=CC=C1,1,0.942138592,0.885495733,0.829403186,0.775708429,0.723389452,0.67236764,0.622918149,0.575748523,0.530583606,0.488170251,0.449491158,0.41446771,0.383375065,0.356370455,0.33361111,0.313996407,0.298273199,0.285026395,0.273469837,0.264586224,0.256763928,0.250317412,0.245010829,0.241001411,0.238092618,0.236087908,0.23486936,0.233847351,0.232506948,0.230675194,0.228124103,0.224822229,0.221044729,0.21698421,0.213403249,0.210698857,0.208619463,0.206186296,0.202617128,0.197566047,0.192145471,0.187342031,0.183934025,0.182459975,0.183489845,0.186728826,0.192750815,0.201913514,0.213705921,0.227526621,0.242322161,0.258123985,0.273634931,0.289000436,0.304680406,0.321461001,0.340505737,0.361716345,0.383606983,0.403162723,0.416940185,0.422922866,0.420556523,0.412089575,0.403198101,0.398139158,0.399499216,0.404349826,0.404117908,0.391720158,0.362353135,0.317581299,0.263973019,0.208855311,0.158745445,0.116241681,0.082794486,0.058061879,0.040153144,0.027877249,0.019724765,0.014485006,0.01077826,0.008258615,0.006556578,0.005377337,0.004669793,0.003926871,0.003294012,0.002857693,0.002582537,0.002213042,0.002091187,0.001902508,0.001639145,0.001658799,0.001572321,0.001489774,0.001316819,0.001222479,0.001183171,0.001257857,0.001002355,0.001116348,0.000939462,0.000943393,0.000774368,0.000715406,0.000813676,0.000727198,0.00058962,0.00083333,0.000691821,0.000711475,0.000664306,0.000617136,0.000554243,0.000404873,0.000365565,0.000436319,0.000613205,0.00049135,0.000381288,0.000275156,0.000566036,0.000345911,0.000357703,0.000377357,0.000231917,0.000330187,0.000467765,0.000361634,0.000361634,0.000275156,0.000389149,0.000345911,0.000200471,0.000279087,0.000518866,0.000389149,0.000385219,0.000267295,0.000310533,0.000172955,0.000169024,0.000169024,0.000208333,0.000314464,0.000416665,0.000452042,0.000467765,0.000444181,0.000397011,0.000345911,0.000302672,0.000271225,0.000239779,0.000220125,0.000208333,0.00019654,0.00019654,0.00019654,0.000184748,0.000172955,0.000180817,0.000188679,0.000298741,0.000310533,0.000208333,0.000204402,0.000259433,0.000133647,0.000125786,5.5E-05,0.000141509,0.000275156,0.000180817,0,0.000212263,0.000275156\nSRI-1053336-001.txt,COc1ccc(OC)c(c1)S(=O)(=O)NCCC(O)=O,1,0.959499416,0.931100873,0.91253524,0.903114901,0.899539297,0.901327099,0.905727842,0.910059823,0.913222856,0.912810287,0.907859451,0.896926356,0.878360723,0.852368837,0.817437943,0.774530702,0.724197208,0.666024892,0.600701368,0.52960187,0.456164478,0.382245754,0.311627587,0.247748057,0.191776112,0.145912123,0.108822114,0.080237915,0.05916936,0.044096816,0.03354191,0.025874991,0.020731623,0.017637351,0.015485113,0.014116757,0.013085333,0.012934058,0.012920305,0.013284742,0.013745445,0.014391804,0.01534759,0.016544042,0.018084302,0.02000275,0.022203122,0.024582273,0.027429004,0.030509523,0.03458021,0.038877811,0.043794265,0.049102661,0.055036787,0.061582892,0.068789108,0.076614179,0.085181874,0.095062917,0.104916455,0.116172729,0.128089115,0.140933783,0.154507323,0.168926631,0.184432373,0.200694492,0.216922231,0.234710857,0.252616379,0.271147631,0.289878292,0.308725847,0.327724679,0.346352197,0.364732174,0.382197621,0.399147356,0.415271952,0.430447638,0.443863027,0.455813794,0.465969882,0.47347865,0.478890188,0.481558138,0.481406862,0.478422609,0.472846043,0.465041601,0.454885512,0.442398405,0.427917211,0.41140755,0.39297944,0.372687891,0.350209723,0.325111738,0.298762291,0.270996356,0.241758922,0.21244585,0.183902909,0.157085883,0.131334663,0.108168878,0.087987348,0.070315616,0.055841298,0.043890532,0.034277659,0.026493846,0.020607853,0.015925187,0.012562745,0.00959912,0.00764629,0.005941003,0.004737674,0.003596232,0.003087396,0.002674826,0.00204222,0.001526508,0.001746545,0.001437118,0.001292718,0.001244585,0.001100186,0.000749501,0.000618854,0.000666988,0.000577597,0.000646359,0.000522588,0.00035756,0.000378189,0.000687616,0.000467579,0.000433198,0.000632607,0.000371313,0.00026817,0.000316303,0.000336932,0.00035756,0.000330056,0.000261294,0.000192532,0.000165028,0.000151276,0.000130647,0.000123771,0.000110019,9.63E-05,9.63E-05,9.63E-05,0.000110019,0.000123771,0.000130647,0.000123771,0.000123771,0.00017878,0.000240666,0.000233789,0.000309427,0.000247542,0.000144399,0.00032318,0,0.000213161,0.000336932,0.000302551,0.000103142,0.00026817,0.000398817,0.000288799,0.000316303,0.000130647\nSRI-1052898-001.txt,COc1cc(NC(=O)N[C@@H](Cc2c[nH]c3ccccc23)C(O)=O)c(cc1OC)C(O)=O,0.980864143,0.993604118,1,0.998990124,0.990004816,0.972111884,0.947486444,0.917656259,0.887359977,0.857840522,0.833551708,0.816461498,0.807346719,0.806000218,0.811049598,0.820397425,0.83210163,0.844116566,0.854163538,0.860792468,0.863407788,0.860352265,0.850797284,0.833629391,0.806958305,0.770162564,0.72319038,0.667440042,0.606456474,0.544898054,0.486594543,0.435624285,0.393763627,0.361929226,0.339869907,0.326609458,0.320278311,0.320029727,0.323750732,0.330957104,0.34012885,0.350981133,0.362752663,0.375073151,0.387248631,0.399035698,0.409631628,0.418394245,0.425131931,0.429440736,0.431331017,0.431421647,0.429277602,0.425043891,0.418603989,0.409395991,0.396630121,0.380899359,0.362012087,0.340913446,0.317901219,0.294158773,0.271032611,0.248905968,0.228881938,0.210528088,0.194706696,0.182290399,0.173843692,0.169540066,0.167406379,0.164780702,0.159487915,0.150911737,0.140727525,0.130892886,0.122220899,0.115573843,0.110687596,0.107165977,0.104845851,0.103685789,0.103380236,0.103838565,0.104845851,0.10647719,0.108691149,0.11112003,0.113989114,0.116943649,0.119993993,0.123158271,0.126213793,0.129450576,0.132443952,0.135300089,0.137905051,0.14030027,0.142335559,0.144005738,0.145326345,0.146362116,0.146962862,0.147120817,0.147004293,0.146439798,0.14534965,0.143969486,0.142071437,0.139823815,0.137407881,0.134308338,0.130929138,0.127120092,0.123109072,0.118839109,0.114266183,0.109395473,0.104359039,0.099128399,0.093662121,0.08807673,0.082537948,0.076742813,0.071043487,0.065362287,0.059831273,0.054212219,0.049085156,0.044227393,0.039737329,0.035542459,0.031391609,0.027603279,0.024164522,0.020974349,0.018004278,0.01555986,0.01330447,0.011253645,0.009591233,0.008055704,0.006794653,0.005660485,0.004640251,0.003933338,0.003537156,0.003345538,0.003099543,0.002641214,0.00212074,0.001649464,0.001333554,0.001149705,0.00103577,0.00094773,0.000867458,0.000787185,0.000706913,0.000626641,0.000548958,0.000455739,0.000357341,0.000279658,0.000214922,0.000183849,0.000176081,0.000183849,9.58E-05,0.000157955,0.000116524,0.00013465,7.25E-05,0.00013465,9.84E-05,0.000142418,0.00013465,2.33E-05,0.000119114,8.03E-05,0\nSRI-1053138-001.txt,CC(=O)Nc1ccc(cc1)S(=O)(=O)N[C@H](C(O)=O)C1=CCC=CC1,0.27447012,0.251532591,0.235165402,0.222846014,0.215102398,0.209705332,0.206948135,0.205950852,0.207241454,0.209705332,0.214222441,0.220734118,0.228653725,0.238509237,0.250593971,0.264497281,0.279984513,0.297407649,0.316708025,0.338002968,0.36129248,0.385931258,0.412329948,0.440781871,0.470524395,0.50214416,0.535113192,0.569894933,0.604864399,0.641118601,0.677742384,0.714612555,0.750872623,0.786411127,0.820389175,0.852988625,0.883611106,0.911605451,0.936250095,0.957099195,0.974281809,0.987000111,0.996204455,1,0.998457143,0.990912984,0.976200114,0.955920053,0.931029021,0.901609147,0.869754727,0.836316385,0.800185377,0.764025038,0.727888163,0.692420056,0.656846354,0.621331315,0.584138493,0.544393798,0.500530907,0.45402228,0.404515936,0.354563747,0.305825898,0.258894892,0.215700768,0.176114465,0.141737503,0.111748591,0.086399981,0.066483636,0.050544693,0.038413028,0.029150021,0.022298094,0.017282343,0.01349853,0.010858661,0.00859424,0.006898858,0.005637587,0.004540575,0.003783812,0.00322064,0.002868658,0.002522542,0.002510809,0.001842042,0.001648452,0.001443128,0.001302335,0.001355133,0.001190874,0.001196741,0.00106768,0.000868224,0.000727431,0.000780228,0.000633569,0.00080956,0.000780228,0.000727431,0.000639435,0.000786094,0.000750896,0.000645301,0.000633569,0.000715698,0.000545573,0.000627702,0.000604237,0.000557306,0.000557306,0.000639435,0.000586638,0.000580771,0.000574905,0.000451711,0.000580771,0.000844758,0.000627702,0.000375448,0.000316784,0.000674633,0.000445845,0.000357849,0.000334383,0.000299185,0.000334383,0.000381314,0.000604237,0.000263987,0.000299185,0.000199457,0.000393047,0.000328517,0.000369582,0.000246388,0.000293319,0.000181858,0.000305052,0.000322651,0.000416513,0.000269853,0.000181858,0.000111461,4.69E-05,0,0,1.17E-05,1.76E-05,4.11E-05,5.87E-05,7.63E-05,8.21E-05,8.8E-05,9.97E-05,0.000105595,0.000105595,9.97E-05,9.97E-05,9.97E-05,9.97E-05,0.000105595,7.63E-05,0.000217056,0.000293319,6.45E-05,7.63E-05,7.63E-05,0.000328517,0.000252254,0.000205323,0.000457577,0.00027572,0.000246388,0.000328517,0.000363715,0.000310918,9.39E-05\nSRI-1053040-001.txt,COc1ccccc1N1CCN(CC1)C(=O)Cn1nnc2ccccc2c1=O,1,0.979783867,0.960708277,0.941575661,0.923041829,0.903110832,0.881554561,0.859142882,0.83647458,0.812979385,0.790225542,0.767585755,0.743691369,0.716346839,0.684097973,0.647400987,0.607624533,0.567477403,0.52929771,0.494425594,0.46434376,0.438995181,0.417923641,0.399617918,0.38413504,0.369906761,0.356619429,0.343303584,0.33007328,0.316671894,0.303592712,0.290986855,0.278649026,0.267015483,0.255946509,0.245079981,0.234407345,0.224202332,0.214493456,0.205845285,0.198742551,0.193279348,0.189715149,0.188298024,0.18852043,0.190550597,0.193912349,0.198796727,0.204687634,0.211448205,0.218935873,0.226894015,0.23515155,0.24331499,0.251330159,0.259214166,0.266944199,0.274366286,0.280981438,0.286786804,0.29108095,0.294203188,0.295537624,0.295300961,0.293647173,0.290781557,0.286598614,0.281494682,0.275267315,0.268002053,0.259961222,0.251486984,0.242547974,0.233580451,0.224738388,0.216463745,0.209110091,0.202386587,0.196720938,0.191810898,0.187300048,0.182740726,0.177579767,0.171725927,0.164876964,0.157312309,0.149379829,0.14172108,0.134683927,0.128858601,0.124290725,0.12144792,0.119888227,0.119212455,0.11819452,0.115827892,0.110900744,0.103624077,0.093883836,0.082960281,0.071512076,0.060374669,0.050235237,0.041358958,0.033908357,0.027646774,0.022494369,0.018388412,0.015169228,0.01250891,0.010396054,0.008539819,0.007179721,0.006061989,0.005035499,0.004182943,0.003438739,0.002965413,0.002563371,0.001924667,0.001673748,0.00146845,0.001246044,0.001266003,0.000920989,0.000678623,0.000593083,0.000578826,0.00063015,0.00046192,0.00039919,0.000302244,0.000313649,0.000296541,0.000248068,0.000236663,0.000205298,0.000228109,0.000114054,0.000265176,0.000205298,6.84E-05,9.12E-05,4.28E-05,7.41E-05,7.7E-05,8.84E-05,9.69E-05,9.69E-05,8.27E-05,6.84E-05,5.99E-05,4.85E-05,4.28E-05,3.42E-05,3.99E-05,3.99E-05,3.42E-05,2.57E-05,1.43E-05,2E-05,2.57E-05,2.57E-05,3.14E-05,2.85E-05,1.43E-05,3.99E-05,0.000111203,1.14E-05,0.000171082,0.000119757,7.41E-05,8.55E-06,9.69E-05,3.99E-05,8.84E-05,0,0.0001055,0.000108352,4.56E-05,3.71E-05\nSRI-1053128-001.txt,OC(=O)[C@H](NC(=O)Cn1nnc2ccccc2c1=O)c1ccc(O)cc1,0.93252734,0.948956557,0.964601936,0.978303401,0.989904184,0.997491723,1,0.997491723,0.988869519,0.974196097,0.955603492,0.931586736,0.900923046,0.862953998,0.816049212,0.75904861,0.695808669,0.63015451,0.565629076,0.504897411,0.450718621,0.403594361,0.362866208,0.328440102,0.299688974,0.274973036,0.253912913,0.235395555,0.219370799,0.205192761,0.192817548,0.182379979,0.173735828,0.166656216,0.161028268,0.156127721,0.151785266,0.147997768,0.144611593,0.141792917,0.139808242,0.139294045,0.140115506,0.14222873,0.14575913,0.150603241,0.156572941,0.163339019,0.170697677,0.178454525,0.186459065,0.194567071,0.202759732,0.210836385,0.218455277,0.225848425,0.232388758,0.23814839,0.243014448,0.247341226,0.251113048,0.254050868,0.256110791,0.256571687,0.255367713,0.252385999,0.247902453,0.242732266,0.237154485,0.231899644,0.226751405,0.221681549,0.216727701,0.211961975,0.207318526,0.202863199,0.198664969,0.195096945,0.191949057,0.189409426,0.186929367,0.184223563,0.181053727,0.176889987,0.171506597,0.165144978,0.158096719,0.150901099,0.143871651,0.137535116,0.132333576,0.128925454,0.126642922,0.125470302,0.124488938,0.122519941,0.118628976,0.11229244,0.103435086,0.092796855,0.081058117,0.069429116,0.058254741,0.048024105,0.039470879,0.032096544,0.026023377,0.021038176,0.017056286,0.013830014,0.01125903,0.009221054,0.00755305,0.006261287,0.00520154,0.004348726,0.003693438,0.002994256,0.002527089,0.00212263,0.001793418,0.001570809,0.001232191,0.000943739,0.001069153,0.000877897,0.00072113,0.000636475,0.000605122,0.000548686,0.000376242,0.000272775,0.000492249,0.000373106,0.000232016,0.000285317,0.000285317,0.000313535,0.000341753,0.00022888,0.00022888,0.000109737,5.96E-05,0.000178715,0.000156767,9.41E-05,0.000100331,0.000112872,0.000131685,0.000131685,0.00013482,0.000144226,0.00013482,0.000122279,0.000106602,9.72E-05,8.78E-05,8.15E-05,7.52E-05,6.9E-05,6.27E-05,6.27E-05,6.58E-05,6.58E-05,6.27E-05,4.7E-05,3.76E-05,7.21E-05,0,1.25E-05,2.19E-05,0.000116008,8.15E-05,0.000178715,0.000206933,0.000169309,0.000153632,0.000137955,2.82E-05,9.09E-05,0.000109737\nSRI-1053050-001.txt,O=C(C[C@@H]1NC(=O)N(CCc2c[nH]c3ccccc23)C1=O)Nc1ccccc1,0.99561846,1,0.997985499,0.982507416,0.957779415,0.916985769,0.860747615,0.791213754,0.711271637,0.627115856,0.545545351,0.472603625,0.409818342,0.358096028,0.316933056,0.285187877,0.26118174,0.242967293,0.229285473,0.218894005,0.211138176,0.205044311,0.200310233,0.195727243,0.190489541,0.183623449,0.174977882,0.164670352,0.153086971,0.140835447,0.128624213,0.116767196,0.105339939,0.094668119,0.085455135,0.077952797,0.072293728,0.068506466,0.066288836,0.065308445,0.065325233,0.066261976,0.067683878,0.06958926,0.071880755,0.074308229,0.076918686,0.079750739,0.082500533,0.085210037,0.087963188,0.090632402,0.093271399,0.095685442,0.097827528,0.099553284,0.101038979,0.102459202,0.103944897,0.10576802,0.10786478,0.109924607,0.111584892,0.112721406,0.112932929,0.112101947,0.110382906,0.108470809,0.10717985,0.107077446,0.108143453,0.108972756,0.107978935,0.104560998,0.09911513,0.09290711,0.086875358,0.081587293,0.077244364,0.073727381,0.070883577,0.068597118,0.066841145,0.06548975,0.064537899,0.06406617,0.063805963,0.063666627,0.063733777,0.063763994,0.063757279,0.063617943,0.063241903,0.062679521,0.06190226,0.060994056,0.059934764,0.058826788,0.057609694,0.056353988,0.055031132,0.053443034,0.051611517,0.049637306,0.047330702,0.044431499,0.041394639,0.038089179,0.034506724,0.030771504,0.027096718,0.023472295,0.020002317,0.016886555,0.014074647,0.011548127,0.009414435,0.00756613,0.006065327,0.004901953,0.003800692,0.003046933,0.002355287,0.001987641,0.001581383,0.001250669,0.001027396,0.000856163,0.000663107,0.000560703,0.00044319,0.000412973,0.000396185,0.000360931,0.000310569,0.000337429,0.000275315,0.000278673,0.000266921,0.00018802,0.000177948,0.000139336,0.000144373,0.000203129,0.000167875,0.000129264,0.000114155,0.000117513,0.000127585,0.000119191,0.000100725,8.73E-05,7.39E-05,6.04E-05,5.04E-05,4.53E-05,3.86E-05,3.36E-05,3.02E-05,3.19E-05,3.53E-05,3.86E-05,3.86E-05,4.36E-05,5.04E-05,5.88E-05,3.69E-05,0.000114155,0.000129264,0.000186341,2.52E-05,0,8.9E-05,8.06E-05,2.69E-05,7.72E-05,0.000110798,1.85E-05,4.87E-05,5.71E-05,3.86E-05\nSRI-0000259.txt,OCCN1C(=O)C2=C(C=CC=C2)C1=O,0.992777153,1,0.995472245,0.976175384,0.935447148,0.870312156,0.788359788,0.702375562,0.621716839,0.552442185,0.498173805,0.460097541,0.434871476,0.417838493,0.40373777,0.388343402,0.370857643,0.352854426,0.336791676,0.324113961,0.315187816,0.309107687,0.30160455,0.287501671,0.261868109,0.224919471,0.182809192,0.141483724,0.105776984,0.077500075,0.056592627,0.041978758,0.032097472,0.025691776,0.02170304,0.019245115,0.017841511,0.016955365,0.016493965,0.016228768,0.016213676,0.016319323,0.016509058,0.016703104,0.017041608,0.017509476,0.017962251,0.018509894,0.019035976,0.019700047,0.020551696,0.021330039,0.022328301,0.023335188,0.024359323,0.025590441,0.026849588,0.028201446,0.029680513,0.031146643,0.032729201,0.034400159,0.03625007,0.038104294,0.04004476,0.04203266,0.044100335,0.046070987,0.04808476,0.049982105,0.051926883,0.05381776,0.055822909,0.057677132,0.059376118,0.060883214,0.062127269,0.063250583,0.063968556,0.064386834,0.064496794,0.064214348,0.063804694,0.063050068,0.061924598,0.060663295,0.05890825,0.0568492,0.054397744,0.051579755,0.048390922,0.044904551,0.041275878,0.037427286,0.03366925,0.030025485,0.026403281,0.023195043,0.020163603,0.017487915,0.015088205,0.013016218,0.011198648,0.009484569,0.008108994,0.007022333,0.006114626,0.005265132,0.004519131,0.003973644,0.003367787,0.00286111,0.002768399,0.002350121,0.002076299,0.001824038,0.001595495,0.001371263,0.00134539,0.001172904,0.001060788,0.000961609,0.000853805,0.000804216,0.000789123,0.000707192,0.000659759,0.000579984,0.000388093,0.000336348,0.000465712,0.00034066,0.00040103,0.000368689,0.000293226,0.000304006,0.000321255,0.000237168,0.000237168,0.000297538,0.000286758,0.000178954,0.000200515,0.000168174,0.000206983,0.000213451,0.000235012,0.000235012,0.000191891,0.000122896,6.68E-05,2.8E-05,6.47E-06,0,6.47E-06,1.94E-05,3.45E-05,5.17E-05,6.68E-05,7.98E-05,9.49E-05,0.00010996,0.000125052,0.000137989,0.000142301,0.000137989,0.000142301,0.000166018,5.61E-05,9.27E-05,0.000209139,0.000176798,0.000103492,0.000161706,0.000129364,4.53E-05,0.000122896,6.04E-05,7.33E-05,0.000209139,0.000226388\nSRI-0000271.txt,O=C(C1=NC2=C(S1)C=CC=C2)C1=CC=CC=C1,1,0.973106984,0.948455052,0.92324285,0.898030647,0.871137631,0.839762445,0.805585904,0.768608006,0.72714794,0.682326246,0.634142925,0.580917164,0.524890047,0.467742387,0.413396084,0.364092221,0.322576127,0.290360534,0.267053254,0.252430176,0.245538841,0.244698434,0.248900468,0.257808779,0.270078718,0.28481385,0.301509931,0.319158473,0.337031123,0.354399529,0.371151637,0.386783203,0.401462308,0.414292518,0.425161778,0.433717119,0.43923579,0.441801832,0.441532902,0.440036978,0.438608286,0.439000476,0.442681458,0.449583999,0.459282293,0.470717427,0.48322268,0.496220971,0.508950332,0.521175449,0.533131636,0.544129759,0.555015828,0.565050284,0.574569292,0.583757739,0.593108665,0.601848895,0.610645152,0.619284534,0.628372132,0.638059221,0.647539009,0.657791971,0.669109449,0.680813514,0.693189904,0.706126565,0.719500238,0.734022467,0.748623134,0.76427711,0.779645348,0.795170463,0.810807631,0.826439197,0.841560915,0.857523041,0.872129311,0.886102474,0.899515365,0.911919769,0.923237247,0.933333333,0.941642155,0.949015323,0.954326694,0.958775247,0.961195619,0.962265737,0.961823122,0.959615654,0.956371684,0.950998683,0.944393086,0.936554893,0.92650923,0.915376642,0.90314032,0.88878057,0.873059361,0.855556489,0.837134773,0.81751968,0.796078102,0.774361991,0.751194778,0.727153542,0.703000252,0.677866487,0.653063283,0.627778245,0.60210662,0.576933636,0.551727036,0.527209569,0.503039471,0.479564109,0.456436115,0.433845981,0.411950584,0.390856374,0.370596969,0.350505645,0.331518055,0.313012298,0.295503824,0.279491274,0.264537636,0.250827801,0.237879934,0.22526823,0.21283021,0.201238199,0.190357733,0.17981343,0.170025492,0.160568115,0.151458106,0.142902765,0.134846065,0.127131131,0.119623498,0.112564081,0.106614001,0.102501611,0.100019609,0.096613161,0.090007564,0.082214192,0.075132364,0.069781774,0.065999944,0.063249013,0.060907079,0.05849231,0.055887049,0.053063283,0.049964983,0.046547329,0.042659047,0.038171275,0.033207272,0.028153626,0.024108468,0.021368742,0.019178082,0.016987422,0.015272992,0.013603384,0.011888954,0.010056868,0.008684203,0.007031403,0.005507466,0.004560607,0.003468079,0.00245959,0.001305432,0\nSRI-1053203-001.txt,Brc1ccc(s1)-c1ccnc2nc(nn12)C1CCC1,0.395556506,0.392815638,0.391171118,0.392267465,0.395008332,0.399941894,0.407616322,0.416935272,0.426802394,0.438862211,0.450373854,0.461885498,0.472848967,0.482935359,0.490719423,0.496530062,0.499435381,0.500148007,0.498393852,0.494556637,0.487868921,0.479591501,0.469943648,0.459363899,0.448510064,0.436724335,0.425048239,0.413426961,0.401915318,0.39029404,0.379056484,0.36776411,0.356745823,0.346325045,0.335416393,0.324869535,0.313736131,0.30197781,0.289534272,0.276010832,0.261698022,0.24785116,0.235018419,0.223665746,0.214527694,0.207428847,0.202133491,0.198630663,0.196618866,0.195500592,0.194914046,0.194848266,0.194820857,0.194842784,0.194771521,0.194804412,0.194848266,0.194464544,0.194091786,0.193773846,0.193242117,0.193017366,0.192661053,0.192743279,0.193203745,0.194036969,0.195122352,0.196333816,0.198142788,0.199748937,0.201667544,0.203997281,0.206524361,0.209287155,0.212702276,0.21659979,0.221599132,0.227004122,0.233088848,0.239634039,0.246672587,0.253678244,0.260261808,0.266817963,0.272743718,0.278685919,0.284792571,0.291529623,0.298979301,0.306916853,0.315884971,0.326448274,0.337866728,0.350425383,0.363861115,0.377894356,0.3917467,0.405823795,0.419396571,0.432492435,0.445018199,0.457631671,0.470349296,0.483817919,0.498596676,0.514625269,0.53213393,0.550870499,0.57169561,0.59381441,0.617254309,0.641072447,0.665844406,0.691274174,0.715991317,0.740335701,0.763693374,0.785560014,0.805606718,0.824282989,0.84179165,0.858017585,0.873366443,0.888227426,0.903203526,0.918305705,0.933555892,0.948329167,0.962247292,0.976236679,0.988016928,0.996765776,1,0.99889269,0.992440688,0.981427882,0.965980353,0.947271192,0.926133623,0.903537912,0.880936719,0.858149147,0.83803118,0.819130158,0.802213525,0.787062009,0.776120467,0.769958997,0.755881902,0.718776038,0.671561856,0.627236548,0.588540981,0.556089111,0.528357014,0.501929571,0.474466079,0.444552252,0.412040082,0.376595185,0.337894137,0.295333947,0.246804149,0.193867035,0.141127264,0.099904618,0.074184318,0.056993597,0.044396571,0.034639083,0.026975617,0.020753848,0.015518791,0.011950182,0.008683068,0.006369776,0.004429242,0.002954655,0.001715783,0.000750998,0\nSRI-1053213-001.txt,CCCCC(NC(=O)CCn1nnc2ccccc2c1=O)C(O)=O,0.993373987,0.996978247,0.999271867,1,0.998543734,0.991699281,0.980558842,0.963957404,0.942550287,0.917939383,0.890889233,0.861909529,0.8278693,0.787203058,0.738600164,0.681660144,0.619696004,0.557477018,0.498316192,0.444871211,0.399435697,0.361900428,0.331100391,0.306307454,0.286429417,0.270228452,0.25606626,0.243396742,0.231892236,0.221297898,0.21174843,0.203451352,0.196421225,0.190235733,0.184716483,0.179273687,0.173710749,0.168209702,0.162654046,0.15792118,0.154975881,0.153082734,0.153301174,0.155252571,0.158733048,0.163924638,0.170375899,0.177773733,0.185732229,0.194360608,0.203189224,0.21234914,0.221352508,0.230337672,0.239137162,0.247892964,0.256357513,0.264498043,0.272161646,0.279264585,0.285337217,0.290539729,0.294518977,0.297209429,0.299062528,0.299746974,0.29939747,0.298257941,0.296317466,0.293805406,0.290019113,0.285450077,0.280152908,0.274331483,0.268258851,0.262168017,0.256874488,0.252079731,0.248122326,0.244630927,0.241536361,0.237993993,0.233457723,0.22704651,0.21956494,0.210616183,0.201168654,0.191874033,0.183016292,0.175614818,0.170073723,0.166465823,0.164689178,0.163913716,0.162643124,0.159683262,0.153599709,0.143897333,0.131289706,0.116519523,0.101221444,0.086123601,0.0720233,0.059688723,0.049138072,0.040258487,0.032948029,0.027177573,0.022553927,0.018534632,0.01535269,0.012782379,0.01082006,0.0090689,0.007561664,0.006280149,0.005319013,0.004532629,0.003735324,0.003145536,0.002610358,0.002279057,0.00185674,0.001813052,0.001376172,0.001252389,0.001110403,0.000946573,0.000851916,0.000797306,0.000793665,0.000618913,0.00065532,0.000597069,0.000451443,0.000425958,0.000542459,0.000171111,0.000469646,0.000415036,0.00038227,0.000316738,0.000371348,0.000287613,0.000262128,0.000283972,0.000298535,0.000262128,0.000207518,0.000192955,0.00016383,0.000134705,0.000101939,7.65E-05,5.83E-05,5.83E-05,6.19E-05,6.55E-05,6.55E-05,6.55E-05,6.55E-05,5.83E-05,4.37E-05,3.64E-05,3.64E-05,9.83E-05,0.000207518,0.00010922,0.000185674,0.000262128,0.000116501,0.00016383,0.000112861,0.000225721,0.000149267,0.000145627,0.000156549,0.00021844,0,0.000152908,0.000243925\nSRI-1053165-001.txt,CSCCC(NS(=O)(=O)c1ccc2[nH]c(=O)oc2c1)C(O)=O,0.425389941,0.391469959,0.372563739,0.362554564,0.355881781,0.354213585,0.358662107,0.366447021,0.381182751,0.400367003,0.423721745,0.44846665,0.481552534,0.514360386,0.551060695,0.591097395,0.631968193,0.674507187,0.717880279,0.760419273,0.801012039,0.841326772,0.878583146,0.913059193,0.941974588,0.96644146,0.984708205,0.996302166,1,0.995217839,0.981288403,0.960102316,0.929629939,0.890872188,0.84335641,0.78977952,0.730641977,0.670559124,0.609781188,0.551283121,0.498707148,0.453081992,0.414324242,0.384491339,0.362526761,0.347318375,0.338977396,0.336836545,0.339088609,0.345260934,0.354491617,0.366252398,0.379903801,0.395390219,0.412934078,0.4310062,0.448411043,0.464592543,0.475797259,0.483554369,0.485250368,0.479244863,0.471098507,0.462507298,0.457196875,0.450051436,0.437150721,0.409125031,0.365863152,0.309811772,0.249840131,0.193093669,0.144882809,0.107348403,0.079628548,0.060277477,0.047877221,0.039786471,0.03339172,0.029332444,0.025745823,0.024744905,0.024995134,0.024661495,0.023771791,0.022631857,0.023215726,0.022798677,0.021797759,0.021575333,0.021074874,0.022131398,0.020824645,0.020046153,0.019406678,0.019239859,0.018099925,0.017238024,0.017404843,0.015986877,0.016431729,0.015986877,0.013428977,0.013512386,0.013484583,0.012122223,0.010231601,0.008785831,0.00920288,0.008563405,0.009008258,0.009175077,0.007757111,0.007145439,0.006061112,0.004921178,0.006283538,0.006200128,0.00408708,0.005505046,0.005783079,0.005866489,0.004726555,0.004476326,0.002113048,0.002752523,0.004031473,0.003308588,0.003169572,0.002001835,0.003697834,0.002168655,0.001028721,0.001139934,0.000889704,0.0025579,0.002057442,0.001167737,0.000139016,0.000750688,0.000778491,0.000667278,0.000945311,0.001084327,0.001000918,0.000722885,0.000889704,0.001084327,0.00127895,0.001251147,0.001139934,0.001056524,0.000973114,0.000834098,0.000778491,0.000750688,0.000695082,0.000695082,0.000667278,0.000639475,0.000667278,0.000695082,0.000667278,0.000778491,0.000917508,0.001251147,0.002001835,0.001890622,0.001112131,0.001417966,0.000111213,0.002363277,0.00152918,0.001251147,0.000945311,0.000305836,0.000278033,0.000667278,0.000917508,0.001139934,0\nSRI-1053175-001.txt,CC(C)NC(=O)C[C@@H]1NC(=O)N(CCc2c[nH]c3ccccc23)C1=O,0.997981731,1,0.991478419,0.971071477,0.93597602,0.884360657,0.815664758,0.731794465,0.639327842,0.543198433,0.450956062,0.368842411,0.29846462,0.240794451,0.195233895,0.160699069,0.134611072,0.115288014,0.100935879,0.090358654,0.082547205,0.076679275,0.072306358,0.069278955,0.066999058,0.065504044,0.064793912,0.064666836,0.065167666,0.066068412,0.067638177,0.069391081,0.071611177,0.074219976,0.077400619,0.080969965,0.084673863,0.088553424,0.09286654,0.097392695,0.102008551,0.106841185,0.111785944,0.116790504,0.121978203,0.127079938,0.131934997,0.136644291,0.141263885,0.145588213,0.149811628,0.153848166,0.157301649,0.160471079,0.162937852,0.164847733,0.165972731,0.167075304,0.168338591,0.169867243,0.171683685,0.173316988,0.173761755,0.173036673,0.170640913,0.166193246,0.159895499,0.153451988,0.148690368,0.146223594,0.14547235,0.143203666,0.137032995,0.126014741,0.111554217,0.096320023,0.082046375,0.069413506,0.058851231,0.049402742,0.04149038,0.034759078,0.02881266,0.023722137,0.019506197,0.015955538,0.01295056,0.010483787,0.008349654,0.006690188,0.005228812,0.004331803,0.003374994,0.002732138,0.002283634,0.001812705,0.001532389,0.0012745,0.001087623,0.00080357,0.000751245,0.000848421,0.000781145,0.000586793,0.000489617,0.000635381,0.000377491,0.000399916,0.000579318,0.000493355,0.000388704,0.000254152,0.000295265,0.000396179,0.000418604,0.000231727,0.000149501,0.000362541,0.000448504,0.000332641,0.000254152,0.00021304,0.000164452,0.000254152,0.000403654,0.000239202,0.000414866,0.000317691,0.000299003,0.000340116,0.000276578,0.000127076,0.000284053,0.00021304,0.000310215,0.000205564,0.000317691,0.000265365,0.000231727,0.000284053,0.000328903,0.000100913,6.35E-05,0.000175664,0.00024294,0.000209302,0.000201827,0.000171927,0.000130814,0.000134551,0.000115864,9.72E-05,8.22E-05,7.48E-05,7.1E-05,6.73E-05,7.1E-05,7.48E-05,8.6E-05,9.34E-05,0.000100913,0.000112126,0.000127076,0.000123339,0.000112126,0.000123339,0.000153239,0.000205564,0.00030274,7.1E-05,0.000156976,0.000336378,0.000235465,0.000186877,0.000168189,0.000108389,7.85E-05,5.23E-05,8.22E-05,0,0.00025789\nSRI-031102-1.txt,COC(=O)C1CN(CC2=C1C=CC=C2)S(=O)(=O)C1=CC=C(OC)C=C1,0.767424476,0.767689933,0.763089756,0.75940463,0.760208418,0.761314216,0.759972816,0.765474149,0.784016455,0.798118192,0.810277448,0.82825957,0.850148047,0.871860041,0.899134369,0.926511673,0.950718282,0.969916098,0.9834865,0.993894256,1,0.999438415,0.991586284,0.981580957,0.975606624,0.964125756,0.953671879,0.947934878,0.940535779,0.928762766,0.921645865,0.914564325,0.908890718,0.908490686,0.907415204,0.90448125,0.90185922,0.900401731,0.90022833,0.902752983,0.908392404,0.914135148,0.921327592,0.929594473,0.933213461,0.935029899,0.937420011,0.938971361,0.936799493,0.929454556,0.916893073,0.900583762,0.877341765,0.845801967,0.810226023,0.770008377,0.730742292,0.699991589,0.67789744,0.654867805,0.621267489,0.570700066,0.50849406,0.445946956,0.390171138,0.344005172,0.306699651,0.276609136,0.252009629,0.231167773,0.213261817,0.196920599,0.180530369,0.163071016,0.144709785,0.126603826,0.109577211,0.094506005,0.081907312,0.071493809,0.063167226,0.05646923,0.050996421,0.046496578,0.042685261,0.039436497,0.036562228,0.033978583,0.031656903,0.029474664,0.027454704,0.025581585,0.023817009,0.022147541,0.020582021,0.019124172,0.017739835,0.016463703,0.015335868,0.014257189,0.013240909,0.012343095,0.011477943,0.010609515,0.010048206,0.009598386,0.008604584,0.007377224,0.006829629,0.006265421,0.005972305,0.005633867,0.005039821,0.004690887,0.004354696,0.004030905,0.0037603,0.003530287,0.00333122,0.003120046,0.002965033,0.002871344,0.002767941,0.002629871,0.002502416,0.002408389,0.002336893,0.002296811,0.002296493,0.002156944,0.002039155,0.002037775,0.002025109,0.0019848,0.001923118,0.001883065,0.001883063,0.001883999,0.001845958,0.001803344,0.001820943,0.001850673,0.001811004,0.001871383,0.001911931,0.001890799,0.001958977,0.002183527,0.002247707,0.002158823,0.001925556,0.001643956,0.001618274,0.001500964,0.0012774,0.001254502,0.001390593,0.001125027,0.001158572,0.001496261,0.00154132,0.001133502,0.000949705,0.001080798,0.001042156,0.000700877,0.000578193,0.000857603,0.00160855,0.00164336,0.000503578,3.17E-10,0.000554421,0.001385769,0.001602537,0.00104168,0.000401377,0.000357761,0.001238867,0.00209864,0.001642017\nSRI-1053117-001.txt,CC(C)C(NS(=O)(=O)c1ccccc1[N+]([O-])=O)C(=O)NC(C)(C)C,1,0.973988815,0.945612977,0.913690159,0.879402689,0.842750565,0.802551461,0.76117003,0.7197886,0.67840717,0.638208066,0.600255383,0.567741402,0.539483796,0.513590844,0.488998451,0.468071271,0.447617021,0.429527424,0.413093085,0.39819577,0.384835479,0.373012213,0.361188948,0.350784474,0.340616465,0.33103962,0.322526868,0.314014117,0.306092529,0.298998569,0.294375672,0.290923279,0.28777829,0.284479599,0.281393727,0.278839901,0.276250606,0.273885953,0.271048369,0.268092553,0.26565696,0.26265385,0.259768973,0.25624564,0.253538112,0.2503813,0.247496423,0.244398728,0.240686222,0.236867307,0.233391267,0.229513236,0.225114981,0.221899053,0.218671301,0.215360787,0.211364523,0.206978091,0.201716738,0.196987432,0.192068953,0.188013573,0.184064602,0.179890989,0.175504558,0.170964424,0.166719871,0.162392556,0.158656404,0.154400028,0.150084536,0.145378877,0.140507691,0.135388217,0.130304213,0.125870488,0.121164828,0.117641495,0.11262843,0.108466641,0.104293028,0.100485936,0.096572435,0.093025455,0.089005545,0.085990612,0.082715568,0.079594226,0.076815758,0.073859942,0.071105121,0.068255714,0.065276251,0.063289942,0.06071247,0.058536989,0.056420625,0.054978186,0.052980054,0.051064685,0.049456721,0.048298041,0.046855602,0.045744215,0.044408186,0.043024864,0.041783421,0.041594249,0.04025822,0.03909954,0.038236442,0.037042292,0.036545715,0.036025491,0.034571229,0.034311117,0.033365256,0.032525804,0.032052874,0.031248892,0.03088237,0.029853746,0.029120704,0.028978825,0.027902907,0.027039809,0.026188534,0.025289966,0.024710626,0.024036699,0.023516476,0.022960782,0.021754809,0.021435581,0.020868064,0.019969496,0.019200984,0.018467941,0.017439317,0.016848154,0.016233344,0.015453008,0.015559418,0.014211566,0.013454877,0.012981946,0.012674541,0.012284373,0.011586801,0.010723702,0.009931543,0.009316733,0.008902919,0.008583691,0.008276286,0.007968881,0.00763783,0.007271308,0.006845671,0.006384564,0.005852517,0.00524953,0.004563781,0.003866208,0.00344057,0.003239575,0.003204105,0.003156812,0.002660235,0.001844429,0.001915369,0.001383322,0.001454262,0.001430615,0.000851275,0.00112321,0.000934038,0.0005084,0,7.09E-05\nSRI-1053319-001.txt,CSc1ccc(cc1)C(NC(=O)OC(C)(C)C)C(O)=O,0.704939571,0.751161484,0.797858279,0.843130427,0.884603513,0.922277537,0.953936382,0.977680515,0.993114201,1,0.996834116,0.983062518,0.95892265,0.92576001,0.883337159,0.83426595,0.777438325,0.716415902,0.652544184,0.586852082,0.52115998,0.457288262,0.396582428,0.339833949,0.28886321,0.243353621,0.20449239,0.171092309,0.143549115,0.120936785,0.102875415,0.088803058,0.077777866,0.06931704,0.063072333,0.05888545,0.05628151,0.054239515,0.052434961,0.050480027,0.04794732,0.046142766,0.046008215,0.046760113,0.047709878,0.047361631,0.045018877,0.042090433,0.039383602,0.036922127,0.034975108,0.032600695,0.029790972,0.027012909,0.025786129,0.024567263,0.022240338,0.018100944,0.013613303,0.009616374,0.006537551,0.004535129,0.003458729,0.003078823,0.002208204,0.001820384,0.00151171,0.001448392,0.001527539,0.001503795,0.001321757,0.001068486,0.000791471,0.000862704,0.001052657,0.00109223,0.000743983,0.000593603,0.000926021,0.001013083,0.000664836,0.000799386,0.000466968,0.000609433,0.000815215,0.00055403,0.000459053,0.000680665,0.000601518,0.000593603,0.000831045,0.000466968,0.0002691,0.000569859,0.000482797,0.000356162,0.000364077,0.000680665,0.000751898,0.0002691,0.000522371,0.000593603,0.000641092,0.000522371,0.000506542,0.000728153,0.000625262,0.000759812,0.000356162,0.00067275,0.000324503,0.000459053,0.000601518,0.000451139,0.000815215,0.000348247,0,0.000791471,0.000641092,0.000474883,0.000617347,0.000791471,0.000838959,0.000736068,0.000625262,0.000878533,0.00095768,0.000894362,0.0005382,0.000387821,0.000656921,0.00067275,0.000577774,0.000395736,0.000395736,0.000625262,0.000696495,0.000625262,0.000348247,0.000427394,0.000277015,0.000245356,0.000356162,0.000625262,0.000490712,0.000387821,0.000379906,0.000466968,0.000514456,0.000506542,0.000459053,0.000411565,0.000356162,0.000324503,0.000292844,0.00028493,0.00028493,0.000277015,0.00028493,0.00028493,0.000308674,0.000332418,0.000348247,0.000379906,0.00040365,0.000395736,0.000189953,0.000118721,0.000300759,0.000530286,0.000506542,0.000277015,0.000118721,0.000649006,0.000371991,0.000348247,0.0002691,0.000490712,0.000443224,0.000189953,0.000601518\nSRI-1053271-001.txt,Cc1ccc(cc1)S(=O)(=O)NC1(CC(O)=O)CCCCC1,0.752667848,0.798777749,0.844040041,0.8859119,0.923291433,0.954229142,0.979148832,0.994914349,1,0.996355284,0.980250723,0.954398664,0.91896863,0.874469185,0.820985091,0.761822019,0.697064732,0.629510337,0.56085405,0.492028242,0.425660499,0.364208885,0.308351486,0.258003543,0.21570788,0.179430238,0.149424898,0.124759491,0.104755931,0.088905653,0.076750947,0.067427254,0.060129345,0.055077599,0.051204028,0.048957865,0.047542359,0.047016842,0.045567431,0.044329923,0.042880513,0.041863382,0.042744895,0.043931547,0.04422821,0.043592504,0.041117487,0.038566186,0.036735351,0.034607854,0.032955017,0.030259622,0.027869367,0.025758821,0.024495885,0.023436374,0.020546029,0.016536841,0.012027564,0.008077709,0.005721357,0.004441468,0.003466719,0.00320396,0.003110723,0.002924249,0.003017486,0.002847964,0.002898821,0.002975106,0.003017486,0.003627764,0.003500623,0.003882047,0.004043092,0.004085473,0.004382136,0.004729655,0.004899177,0.005348409,0.005263649,0.005484027,0.005678977,0.005797642,0.006136685,0.006229922,0.006246874,0.00636554,0.006357064,0.006518109,0.006594394,0.006306207,0.006187542,0.005882403,0.006119733,0.005568788,0.005280601,0.005085651,0.004814416,0.004517753,0.004136329,0.004127853,0.00363624,0.003381958,0.002737775,0.002373304,0.001856263,0.001737597,0.001746073,0.000686563,0.000593326,0.001076463,0.001084939,0.00101713,0.000652659,0.000339043,0.000703515,0.000423804,0.00062723,0.00062723,0.000491613,0.000695039,0.000703515,0.00062723,0.001288365,0.001144271,0.000601802,0.001245984,0.001203604,0.00082218,0.000754372,0.001008654,0.001152748,0.000745895,0.000898465,0.000847608,0.001076463,0.000652659,0.000856085,0.000771324,0.000703515,0.000796752,0.000271235,0.000245806,0.000559422,0.000669611,0.000652659,0.000508565,0.000322091,0.000161046,9.32E-05,7.63E-05,5.09E-05,1.7E-05,4.24E-05,0.000101713,0.000161046,0.000220378,0.000262759,0.000313615,0.000355996,0.000398376,0.000423804,0.00043228,0.000415328,0.000406852,0.000449232,0.000678087,0.000305139,0.000169522,0.000669611,0.000474661,0.000406852,0.000288187,0.000678087,0.000288187,0.000381424,0.000101713,0,0.000372948,0.000593326\nSRI-1052976-001.txt,CCOc1ccc(NC(C)=O)cc1S(=O)(=O)NCCc1c[nH]c2ccccc12,1,0.985244897,0.962246883,0.92983259,0.888178023,0.835845808,0.773363958,0.704193911,0.630917075,0.557610905,0.489526223,0.429831123,0.37961097,0.339657787,0.309648899,0.288469605,0.274066512,0.266058275,0.262538171,0.262655508,0.265999607,0.271367766,0.278114632,0.286562882,0.295744487,0.305600779,0.315427737,0.325020021,0.334465634,0.343383231,0.351456003,0.3580914,0.36351236,0.367977025,0.370361896,0.370922179,0.369414401,0.366431113,0.361417898,0.354122482,0.345809169,0.335624334,0.32454774,0.312309511,0.299241124,0.285386581,0.271048023,0.256131581,0.241135938,0.226524572,0.21271403,0.20022646,0.189384539,0.180337871,0.172892851,0.166929208,0.162226935,0.158879903,0.157055316,0.156448098,0.156902778,0.157879607,0.158633496,0.15890337,0.158422289,0.1565361,0.153579213,0.150449253,0.148609999,0.148460394,0.149492958,0.149988706,0.147465965,0.141461254,0.132731396,0.123400186,0.11442392,0.106706092,0.100232034,0.094623334,0.090038398,0.086075348,0.082745916,0.079976767,0.077298555,0.074887283,0.072546414,0.070405017,0.068222553,0.066081156,0.064112831,0.061901032,0.059762569,0.057219294,0.054652551,0.052071141,0.049498532,0.046617913,0.043564223,0.040724672,0.037462709,0.034156744,0.03086838,0.027656285,0.024464724,0.021334765,0.018600817,0.016136744,0.013699072,0.011798216,0.009991229,0.008615455,0.007409819,0.006359655,0.005632167,0.004810809,0.004247592,0.003778245,0.003382233,0.002810217,0.002425938,0.002059261,0.00193019,0.001669116,0.001622181,0.001416842,0.001161634,0.00102083,0.000792023,0.000680553,0.00057495,0.000513349,0.000234674,0.000243474,0.000431213,0.000319743,0.000428279,0.000184805,0.000149604,0.000255208,5.28E-05,0.000137871,0.000187739,0.000258141,0.000170138,0.000167205,0.000164272,0.000149604,0.000140804,0.00012027,9.68E-05,7.92E-05,6.75E-05,6.45E-05,7.33E-05,7.92E-05,8.21E-05,9.09E-05,9.97E-05,0.000108537,0.000117337,0.000123204,0.000132004,0.00012907,0.000105603,5.87E-05,0.00010267,9.97E-05,2.93E-06,0,9.97E-05,1.47E-05,0.000164272,2.05E-05,0.000117337,0.000158405,0.000149604,3.52E-05,8.21E-05,0.000158405,0.000173072\nSRI-0000477.txt,COC(=O)C1=CC2=CC=CN=C2C2=C1C=CC(=C2)C(F)(F)F,0.507035807,0.519485322,0.531934838,0.545849002,0.561593977,0.579535926,0.60004101,0.622743068,0.647275936,0.673273454,0.700003295,0.729296273,0.761152386,0.796303959,0.835117154,0.875028835,0.91384203,0.947492338,0.973892634,0.991102258,0.998718432,1,0.996008832,0.98652523,0.971329498,0.948261279,0.916478398,0.876566717,0.831528764,0.783964292,0.735374566,0.688176256,0.643101687,0.601615508,0.565438681,0.536270198,0.514959557,0.502107264,0.495263692,0.49239298,0.491587423,0.490448659,0.487530346,0.483649026,0.479200155,0.474414415,0.470767439,0.468347107,0.466098871,0.463125634,0.45797007,0.449130914,0.434872557,0.415180353,0.391002662,0.364302113,0.336865578,0.311248869,0.288711585,0.269528346,0.253406224,0.240052288,0.228822093,0.219708315,0.211905398,0.205373064,0.199906262,0.195607518,0.192550064,0.190111423,0.188712683,0.187987682,0.187940081,0.188265966,0.189086169,0.189891726,0.190613065,0.191173294,0.191070768,0.190733899,0.18926925,0.187017352,0.18407707,0.180228705,0.175369732,0.169309748,0.162447868,0.155029421,0.146999484,0.138746187,0.130254886,0.121888079,0.113828848,0.106479973,0.099629078,0.093664295,0.088149892,0.082265665,0.076128787,0.069878398,0.063565761,0.057926863,0.053239986,0.049450207,0.046744269,0.044920781,0.044572927,0.045887449,0.049245157,0.053752613,0.058545677,0.062383057,0.063250861,0.061522576,0.057362973,0.052057282,0.04661245,0.041980498,0.038121148,0.035514073,0.033913945,0.033192605,0.034206874,0.037242359,0.042083024,0.047948942,0.05347433,0.057066382,0.057732797,0.054708297,0.049314727,0.042178226,0.034060409,0.02636368,0.019816699,0.014181463,0.010010875,0.007077916,0.005173872,0.003625006,0.002647353,0.001834473,0.001611114,0.001237628,0.001036239,0.00094836,0.000860481,0.000798234,0.000754294,0.00069937,0.000615153,0.00051995,0.000454041,0.000410102,0.000377147,0.000351516,0.000322223,0.000296591,0.000281945,0.00027096,0.000256314,0.000245329,0.000234344,0.000223359,0.000216036,0.000223359,0.000263637,0.00040644,0.000355177,0.000241667,1.83E-05,0.000146465,6.96E-05,8.79E-05,0.000131818,0.00013548,0.000175758,0.000219697,0,0.000186743,0.000186743\nSRI-031196.txt,COC(=O)\\C=C(\\O\\N=C(/N)[C@@H]1CCCN1C(=O)OCC1=CC=CC=C1)C(=O)OC,0.60018431,0.548144956,0.514212454,0.493543582,0.481860142,0.475033404,0.471032082,0.470418646,0.473505299,0.477744472,0.48358058,0.491829458,0.502487238,0.515311404,0.530306136,0.546469299,0.563203127,0.581017061,0.600614249,0.621850657,0.644770372,0.668873846,0.69341313,0.718463445,0.744632709,0.770407621,0.796484078,0.822395258,0.846686116,0.869684744,0.892236603,0.912721642,0.930927492,0.947516506,0.961837696,0.974127439,0.98461446,0.99291224,0.997866731,0.999228263,0.999999994,0.999154865,0.996416554,0.991313362,0.981337039,0.967198034,0.952363554,0.936216523,0.915814552,0.890981071,0.863990884,0.835889707,0.806378178,0.775662352,0.744883237,0.713621056,0.680690261,0.646791244,0.61357454,0.581729718,0.551306215,0.521279296,0.491622604,0.463143683,0.436211291,0.410763904,0.386737975,0.364040267,0.34249383,0.321996111,0.3027769,0.284732979,0.267628546,0.251283216,0.235693455,0.221131312,0.207311293,0.194245688,0.182079224,0.170595329,0.159913016,0.149780494,0.140212308,0.131373089,0.123114284,0.1155241,0.108342305,0.101682267,0.095652275,0.089737837,0.084273264,0.079212334,0.074433214,0.069968991,0.065779575,0.061866438,0.058102283,0.054567391,0.051406483,0.048377493,0.045467248,0.042793695,0.040226559,0.037688271,0.035721894,0.034091292,0.031399537,0.028225801,0.026484664,0.024604726,0.023437994,0.022158725,0.020151459,0.018691692,0.017363142,0.016045167,0.014886401,0.013841468,0.01270117,0.011708777,0.010951916,0.010231366,0.009442155,0.008754723,0.0080035,0.00728362,0.006641797,0.006066694,0.005642323,0.005043285,0.004400364,0.004011455,0.003812986,0.003423045,0.003070246,0.002798335,0.00250004,0.00219271,0.001977424,0.001784017,0.001641632,0.001540929,0.001412656,0.001445839,0.001453793,0.001354529,0.0014747,0.002036034,0.002153035,0.00197399,0.001615834,0.001188402,0.001234087,0.000989058,0.000716793,0.001028504,0.001487605,0.000979718,0.001342224,0.002410441,0.002631388,0.001782883,0.001602232,0.001926122,0.001827591,0.001242362,0.001091887,0.001767409,0.0035599,0.003572848,0.000836717,1.3E-11,0.001325367,0.003163703,0.003662331,0.002369735,0.001001491,0.000871363,0.002846378,0.004754489,0.003566961\nSRI-031196.txt,COC(=O)\\C=C(\\O\\N=C(/N)[C@@H]1CCCN1C(=O)OCC1=CC=CC=C1)C(=O)OC,0.60018431,0.548144956,0.514212454,0.493543582,0.481860142,0.475033404,0.471032082,0.470418646,0.473505299,0.477744472,0.48358058,0.491829458,0.502487238,0.515311404,0.530306136,0.546469299,0.563203127,0.581017061,0.600614249,0.621850657,0.644770372,0.668873846,0.69341313,0.718463445,0.744632709,0.770407621,0.796484078,0.822395258,0.846686116,0.869684744,0.892236603,0.912721642,0.930927492,0.947516506,0.961837696,0.974127439,0.98461446,0.99291224,0.997866731,0.999228263,0.999999994,0.999154865,0.996416554,0.991313362,0.981337039,0.967198034,0.952363554,0.936216523,0.915814552,0.890981071,0.863990884,0.835889707,0.806378178,0.775662352,0.744883237,0.713621056,0.680690261,0.646791244,0.61357454,0.581729718,0.551306215,0.521279296,0.491622604,0.463143683,0.436211291,0.410763904,0.386737975,0.364040267,0.34249383,0.321996111,0.3027769,0.284732979,0.267628546,0.251283216,0.235693455,0.221131312,0.207311293,0.194245688,0.182079224,0.170595329,0.159913016,0.149780494,0.140212308,0.131373089,0.123114284,0.1155241,0.108342305,0.101682267,0.095652275,0.089737837,0.084273264,0.079212334,0.074433214,0.069968991,0.065779575,0.061866438,0.058102283,0.054567391,0.051406483,0.048377493,0.045467248,0.042793695,0.040226559,0.037688271,0.035721894,0.034091292,0.031399537,0.028225801,0.026484664,0.024604726,0.023437994,0.022158725,0.020151459,0.018691692,0.017363142,0.016045167,0.014886401,0.013841468,0.01270117,0.011708777,0.010951916,0.010231366,0.009442155,0.008754723,0.0080035,0.00728362,0.006641797,0.006066694,0.005642323,0.005043285,0.004400364,0.004011455,0.003812986,0.003423045,0.003070246,0.002798335,0.00250004,0.00219271,0.001977424,0.001784017,0.001641632,0.001540929,0.001412656,0.001445839,0.001453793,0.001354529,0.0014747,0.002036034,0.002153035,0.00197399,0.001615834,0.001188402,0.001234087,0.000989058,0.000716793,0.001028504,0.001487605,0.000979718,0.001342224,0.002410441,0.002631388,0.001782883,0.001602232,0.001926122,0.001827591,0.001242362,0.001091887,0.001767409,0.0035599,0.003572848,0.000836717,1.3E-11,0.001325367,0.003163703,0.003662331,0.002369735,0.001001491,0.000871363,0.002846378,0.004754489,0.003566961\nSRI-1053170-001.txt,Fc1cccc(F)c1CNC(=O)CCn1nnc2ccccc2c1=O,1,0.988853516,0.981315606,0.97441922,0.968244549,0.958942447,0.946673296,0.929512522,0.90665822,0.87963401,0.850524847,0.819491111,0.787013945,0.749404585,0.704337506,0.652374041,0.59664162,0.539786533,0.485898495,0.436741698,0.394641669,0.359999358,0.332012863,0.309639704,0.292238358,0.277964444,0.266256626,0.255350713,0.245567468,0.236104985,0.227251951,0.21963385,0.21285775,0.206963746,0.202032028,0.196739453,0.191029887,0.185793445,0.180573042,0.175424809,0.170308653,0.166964708,0.165008059,0.164583049,0.165553355,0.167782652,0.17177614,0.177381458,0.183652358,0.189209562,0.194526194,0.199570179,0.206177879,0.213186531,0.220772556,0.228815666,0.237107367,0.245415106,0.253498312,0.261332927,0.268662342,0.275374289,0.281573017,0.286055668,0.289840661,0.292430816,0.293786036,0.294467655,0.294178969,0.292847806,0.290706719,0.287539193,0.282888142,0.277868215,0.272471392,0.267499579,0.262615976,0.25885504,0.255278542,0.252375645,0.249464728,0.246281164,0.242087199,0.236930948,0.229842105,0.222039566,0.213106341,0.203467439,0.194598366,0.186659503,0.179554622,0.174462523,0.171070463,0.168849186,0.167678404,0.164791545,0.15941076,0.151672374,0.140453718,0.126821327,0.111713431,0.09690224,0.08233162,0.069019991,0.057592841,0.047865729,0.039429685,0.032276689,0.026663352,0.022060416,0.018147118,0.015340449,0.01312719,0.010817703,0.00931814,0.007513853,0.006383166,0.005573242,0.004586898,0.003945374,0.003255736,0.002918935,0.002309487,0.001627868,0.00178023,0.001579753,0.001339182,0.001539658,0.001090591,0.000866058,0.00085002,0.000697658,0.000842001,0.001050496,0.000922191,0.00068162,0.000922191,0.000352838,0.000280667,0.000433029,0.000481143,0.000473124,0.000745772,0.000152362,0.000288686,0.00042501,0.000489162,0.000449067,0.000457086,0.000449067,0.000416991,0.000368876,0.000320762,0.000312743,0.000288686,0.000272648,0.00025661,0.00025661,0.00025661,0.00025661,0.000248591,0.000240572,0.000216514,0.000184438,0.000160381,0.000208495,0.000344819,0.00025661,0.000296705,0.000312743,0.000176419,0.000312743,0.000304724,0.000352838,0.000312743,0,0.000248591,0.0005052,0.000457086,0.000368876,0.000400953\nSRI-0000241.txt,COC1OC2COC(OC2C(OC(=S)NC2=CC=CC=C2)C1O)C1=CC=CC=C1,0.725814313,0.685429403,0.647829659,0.607444749,0.565667256,0.521104597,0.476541938,0.431979278,0.387416619,0.345639126,0.306646799,0.270439638,0.23980281,0.212368923,0.188555752,0.168502555,0.153044883,0.141207927,0.133827236,0.130624295,0.130763553,0.133687978,0.140372377,0.149563425,0.161818156,0.176161762,0.193012018,0.21181189,0.232700636,0.255260483,0.278934395,0.304279408,0.330501748,0.358548371,0.387360916,0.417969892,0.449539751,0.481081759,0.513459316,0.546129315,0.58021975,0.615187511,0.649876756,0.684162152,0.718586807,0.752384799,0.78575109,0.817432355,0.84734504,0.875976549,0.901265858,0.924104221,0.945522149,0.964127059,0.979180883,0.990349399,0.997688312,1,0.997869348,0.99228509,0.98256486,0.969989834,0.954156164,0.935217034,0.913506664,0.888649055,0.862747009,0.835925859,0.807531089,0.778453954,0.746814466,0.71386595,0.679162779,0.642496066,0.604840619,0.564873484,0.524586055,0.485440544,0.446322884,0.407650852,0.371248729,0.336225264,0.302733641,0.272013257,0.243395675,0.21842666,0.194293194,0.172680305,0.154562799,0.138116392,0.12309042,0.110041917,0.098943029,0.08898606,0.080491303,0.073040984,0.066133772,0.060145664,0.054742442,0.049548107,0.045621022,0.041540754,0.037697225,0.03377014,0.031472378,0.02916069,0.026598337,0.024370204,0.022086368,0.021139411,0.017964322,0.01600078,0.015638708,0.014176496,0.012421841,0.011265997,0.010402596,0.008801125,0.009497417,0.008160537,0.006767954,0.006712251,0.006071662,0.005876701,0.005807072,0.004706931,0.004400563,0.003690345,0.003091534,0.003537161,0.002896573,0.002562353,0.003133312,0.002826944,0.002409169,0.002395243,0.002353465,0.001824284,0.001364731,0.002353465,0.002019245,0.001364731,0.001685026,0.001462212,0.001392583,0.001490064,0.001559693,0.001295102,0.00083555,0.000515256,0.000264591,4.18E-05,0,5.57E-05,0.000125332,0.000208887,0.000292442,0.000389923,0.000487404,0.000557033,0.000626662,0.000710217,0.000793772,0.00083555,0.000849476,0.000779847,0.000863402,0.001141918,0.000738069,0.000793772,0.001420435,0.001239399,0.000877327,0.000974808,0.000320294,0.000389923,0.000933031,0.000557033,0.000515256,0.001322954,0.001030511\nSRI-0000686.txt,CN1C2CCC1CN(C2)C(=O)C1CCCCC1,1,0.898916968,0.809566787,0.73465704,0.666967509,0.600180505,0.542418773,0.483754513,0.438628159,0.388086643,0.344765343,0.312274368,0.266245487,0.231949458,0.199458484,0.173285199,0.146209386,0.128158845,0.113718412,0.095397112,0.079602888,0.069043321,0.058032491,0.047382671,0.038537906,0.031046931,0.026534296,0.021299639,0.017870036,0.013718412,0.011913357,0.01101083,0.007851986,0.006046931,0.001805054,0.004061372,0.002797834,0.002436823,0.000722022,0.002617329,0.001714801,0.001805054,0.005956679,0,0,0,0,0.000180505,0,0,0.000541516,0,0.000180505,0,0.000541516,0,0,0.002166065,0.002256318,9.03E-05,0,0.000361011,0,0.000541516,0.00198556,0,0,0.001624549,0.001353791,0.002707581,0.001353791,0.004602888,0,0.002527076,0,0.000722022,0.002617329,0.000270758,0,0.000631769,0,0,0.002617329,0.001173285,0,0.00099278,0.001173285,0.000451264,0.003429603,0.003790614,0.003249097,0.003068592,0.001624549,0.002527076,0.001805054,0.002075812,0,0.001263538,0,0,0,0,0.000270758,0.00234657,0.005415162,0.005234657,0.002797834,0.00099278,0.000631769,0.002527076,0.001534296,0.001805054,0.003971119,0.002075812,0.004602888,0,0,0.00234657,0.005415162,0.007220217,0.003971119,0.006768953,0.00198556,0.00099278,0.007220217,0.00198556,0.000812274,0.008032491,0.00532491,0,0.00234657,0.000270758,0.004693141,0.003519856,0.002256318,0.001353791,0,0.00099278,0.002888087,0.005415162,0.004873646,0.003880866,0.002978339,0.004693141,0.002888087,0.000812274,0.002527076,0.002978339,0.003158845,0.001624549,0,0,0,0,0,0,0,0,0,0,0,9.03E-05,0.000541516,0.001083032,0.001173285,0.000180505,0.001173285,0.006137184,0.000722022,0,0.002436823,0.000631769,0.00198556,0,0.000270758,0.00532491,0.00234657,0.003158845,0,0.002888087,0.000631769\nSRI-0000137.txt,COC(OC)C1CCC2=C(C1)C(NC(C)=O)=NC(NC(C)=O)=N2,0.613157313,0.633084092,0.655031747,0.678107332,0.701746883,0.726843345,0.751798815,0.77731825,0.802320718,0.827652165,0.851855681,0.875213249,0.897019913,0.917792639,0.937155452,0.953933424,0.969019499,0.981520733,0.990732168,0.997170773,1,0.999459533,0.995445979,0.988950977,0.979429361,0.967238308,0.952175732,0.933395683,0.910465788,0.88303357,0.851136625,0.814817252,0.7748697,0.731942532,0.688004925,0.643315365,0.598968883,0.557061552,0.516413744,0.47731684,0.440071624,0.404960076,0.371827107,0.341678455,0.314932395,0.292519469,0.274778056,0.261867947,0.253483661,0.248887343,0.247872205,0.249503005,0.253366169,0.258916528,0.265613618,0.273457437,0.281743029,0.290644284,0.299554937,0.308404495,0.317239953,0.325784029,0.333750041,0.340827807,0.347022028,0.352567688,0.356849125,0.360228218,0.36231959,0.363315929,0.363226634,0.361882517,0.359020392,0.355194827,0.349578671,0.342782887,0.334962567,0.325798129,0.315961632,0.305208691,0.293985779,0.282908558,0.271652748,0.260801113,0.250292557,0.240526556,0.231728695,0.224044666,0.217018597,0.210970068,0.205555999,0.200532007,0.194915852,0.188491345,0.18042194,0.170712335,0.159066449,0.14551248,0.130388807,0.114607175,0.098487163,0.08270083,0.068112925,0.055310909,0.044402878,0.035064551,0.027657805,0.02152938,0.017059954,0.013403578,0.011049023,0.009310129,0.007632332,0.006537299,0.005602057,0.005211981,0.00505219,0.004366032,0.004004155,0.003717472,0.003491886,0.003177005,0.003054813,0.002833926,0.002815127,0.002838626,0.002791629,0.002363955,0.002260561,0.002157168,0.002110171,0.002086672,0.001992678,0.001574403,0.001546205,0.00179999,0.001616701,0.001414613,0.001377016,0.001358217,0.001419313,0.001179628,0.001236024,0.001315919,0.001179628,0.00114673,0.001095033,0.001038636,0.000935243,0.000798951,0.000676759,0.000578065,0.000526368,0.000498169,0.000502869,0.000507569,0.000507569,0.000502869,0.00048877,0.000465271,0.000441773,0.000413575,0.000371277,0.00031958,0.000249085,0.00016919,9.4E-05,0.000192688,0.000145691,0.000253784,0.000258484,0.000136292,6.58E-05,0.00016449,3.76E-05,0.000239685,0.000244385,0.000112793,0.00016449,0,0.00015509\nSRI-0000679.txt,CN1C2CCC1C(=O)N(CC1=CC=CC=C1)C2=O,1,0.868337352,0.75146826,0.643475302,0.548796544,0.461958371,0.387546785,0.322307203,0.267275175,0.221415152,0.183543648,0.153068923,0.127476071,0.108096513,0.093598828,0.081468112,0.073035786,0.067118363,0.062088554,0.059129843,0.057058745,0.055431454,0.055135583,0.055283518,0.055727325,0.055875261,0.057206681,0.058094294,0.058686036,0.060209773,0.061408051,0.062843026,0.064751394,0.065712975,0.066349098,0.065476279,0.066215956,0.065994053,0.066985221,0.067798867,0.066363892,0.064603459,0.062162522,0.061260115,0.059691998,0.056851635,0.053597053,0.050386851,0.047087889,0.043788926,0.039750285,0.036392148,0.033522198,0.031199609,0.028950989,0.027900646,0.02699824,0.025859136,0.025415329,0.025104664,0.024616477,0.024927142,0.024231845,0.022678521,0.022663728,0.022648934,0.022604553,0.021406275,0.021332308,0.020696185,0.019808571,0.019024513,0.019083687,0.018536326,0.018299629,0.017559951,0.016243324,0.015829105,0.014941491,0.015015459,0.014290575,0.01397991,0.013018329,0.012382206,0.0119384,0.011183928,0.011021199,0.010103999,0.009571431,0.008757785,0.00819563,0.008106869,0.007810998,0.006745862,0.006834623,0.006479577,0.006228087,0.005355267,0.004615589,0.004290131,0.00486708,0.004748731,0.00420137,0.003920292,0.00312144,0.002855156,0.001568117,0.00133142,0.001656878,0.000798852,0.001893575,0.001449768,0.000591742,0.000650916,0.000281078,0.000517774,0.000724884,0.000621329,0.000384632,0.000192316,0.000724884,0.001819607,0.001508943,0.000724884,0.001094723,0.001449768,0.001390594,0,0.00087282,0.001287039,0.001272246,0.001553323,0.00107993,8.88E-05,0.000369839,0.001020755,0.000636123,0.000724884,0.000710091,0.001153897,0.000931994,0.000828439,0.000562155,0.001508943,0.001139104,0.001287039,0.001361007,0.001420181,0.001390594,0.001227865,0.001050342,0.000931994,0.00087282,0.000813646,0.000769265,0.000784058,0.000784058,0.000769265,0.000769265,0.000754471,0.000739678,0.000724884,0.000695297,0.000680504,0.000754471,0.000961581,0.000961581,0.000843233,0.001923162,0.000591742,0.000724884,0.001597704,0.000606536,0.000576949,0.001523736,0.001523736,0.001804814,0.001671672,0.001213072,0.00199713,0.00133142\nSRI-1053184-001.txt,CC(C)[C@H](NC(=O)N1CCN(CC1)c1ccc(Cl)cc1)C(O)=O,0.445926009,0.422240476,0.402303159,0.387150798,0.3759859,0.368808466,0.364262758,0.363465265,0.365937493,0.371838938,0.381329101,0.394009235,0.408045106,0.424234208,0.443294283,0.463311349,0.484365156,0.507970939,0.532214717,0.55805348,0.586523969,0.615712201,0.64633592,0.677757132,0.709975836,0.742593287,0.775290487,0.807907937,0.839169651,0.868987902,0.896517349,0.921965341,0.944342986,0.963426986,0.979225316,0.990422113,0.997998293,1,0.998420964,0.990079191,0.977606405,0.959894093,0.936814655,0.908455815,0.875367844,0.838236584,0.796886589,0.75201965,0.704768209,0.654869092,0.604124632,0.553603471,0.503768153,0.455679344,0.40981554,0.367436779,0.328566985,0.293732505,0.263475633,0.236616079,0.214126785,0.195449507,0.179730926,0.166891294,0.156763137,0.148501113,0.141586851,0.136698221,0.132910131,0.129520787,0.126849186,0.124408859,0.122367277,0.119974799,0.118284115,0.116928377,0.115181868,0.113212061,0.1117686,0.109830692,0.107629612,0.105476382,0.103195553,0.100755226,0.097804503,0.094566682,0.09155216,0.088657262,0.08553109,0.08226137,0.079095324,0.075809654,0.072547909,0.069493512,0.066343416,0.063073696,0.059732202,0.055872337,0.052730216,0.048878327,0.045169986,0.041788617,0.038335473,0.035233227,0.032274529,0.028901135,0.026101936,0.023685533,0.021436603,0.019004251,0.016563923,0.014929063,0.013421802,0.011954415,0.010718302,0.008732545,0.007568206,0.006738813,0.005845621,0.004880655,0.004019363,0.003644542,0.003110221,0.002575901,0.002089431,0.001913982,0.001626885,0.001475361,0.001531186,0.001212189,0.000980916,0.000693819,0.000861292,0.000837367,0.000956991,0.000861292,0.001076615,0.000645969,0.000167473,0.000430646,0.000725718,0.000390771,0.00055027,0.000486471,0.000542295,0.00053432,0.000510395,0.000398746,0.000271148,0.000223298,0.000215323,0.000215323,0.000215323,0.000207348,0.000199373,0.000183423,0.000159499,0.000127599,0.000119624,0.000127599,0.000119624,0.000103674,9.57E-05,9.57E-05,0.000135574,0.000199373,0.000382796,0.000215323,0.000311022,0.000175448,1.59E-05,0.000231273,0.000223298,0.000239248,0.000151524,0,0.000295072,0.000183423,0.000255198,0.000614069,0.000295072\nSRI-0000490.txt,O=CC1=CC2=C(C=CC=C2)C2=C1C=NC=C2,0.304751591,0.31146017,0.321043855,0.333023461,0.349315725,0.368483094,0.390525569,0.41544315,0.442277467,0.471507705,0.500737944,0.529488998,0.557760868,0.58445143,0.609129418,0.63217818,0.654172736,0.67535268,0.696436786,0.718623016,0.741815533,0.765343479,0.789302691,0.814459864,0.839664954,0.867122211,0.895585755,0.924815993,0.953375374,0.97872422,0.995303994,1,0.989951507,0.966035421,0.931203519,0.890070344,0.844840144,0.799298474,0.754624128,0.712331327,0.674557234,0.641876869,0.615526528,0.594442421,0.577124703,0.561464962,0.546476079,0.531961589,0.518702561,0.507365062,0.497283025,0.486309706,0.471929387,0.453504754,0.431040596,0.407004715,0.382312351,0.358391474,0.336114199,0.315916584,0.29772675,0.282090968,0.268721728,0.257456107,0.24812639,0.240181515,0.233468144,0.22763168,0.223141724,0.22001265,0.218929694,0.219912022,0.223481944,0.229639462,0.238264778,0.247767001,0.257585486,0.267078126,0.27517634,0.281760331,0.287103235,0.291382351,0.295934601,0.30142126,0.308350265,0.316831826,0.32605133,0.335294794,0.343254044,0.347911715,0.347801503,0.342511309,0.331523614,0.315025301,0.29444913,0.271079315,0.246679253,0.222365445,0.199316683,0.178476961,0.160042743,0.145231158,0.132523193,0.122532201,0.1143094,0.107643947,0.102104577,0.09696293,0.092377137,0.088471786,0.085184582,0.082616154,0.080464617,0.079472706,0.079367285,0.080129188,0.082659281,0.086166909,0.090283102,0.094691597,0.098414859,0.10073411,0.101927279,0.10159185,0.099670321,0.09698689,0.094212413,0.091222303,0.088754504,0.086804224,0.086085448,0.086411293,0.088088438,0.091160009,0.096066856,0.101385801,0.106546615,0.110969486,0.113537913,0.113427701,0.11059093,0.105224067,0.098304646,0.089770375,0.080282527,0.071441578,0.065355938,0.06182435,0.057391896,0.049499732,0.040620448,0.032656406,0.027107452,0.023705244,0.021558499,0.019886146,0.018290462,0.01664686,0.014979299,0.013249444,0.01144292,0.009348884,0.00710151,0.004930806,0.003090738,0.001998198,0.001562141,0.0013513,0.000996703,0.000891283,0.000608564,0.000359388,0.000397723,0.000469601,0.00031147,0.000282719,0.000345013,0.000249176,0.000158131,0.000301886,0\nSRI-0000335.txt,CCC(C(O)=O)[C@]1(O)CCC2C3CC=C4CC(O)CCC4(C)C3CCC12C,1,0.918433931,0.864056552,0.782490484,0.728113105,0.646547036,0.592169657,0.537792278,0.483414899,0.42903752,0.42903752,0.37737901,0.355628059,0.336595976,0.331158238,0.339314845,0.333877107,0.339314845,0.347471452,0.355628059,0.355628059,0.363784666,0.369222403,0.37737901,0.385535617,0.390973355,0.390973355,0.393692224,0.4045677,0.396411093,0.390973355,0.381185427,0.368406743,0.357803154,0.346112017,0.326808048,0.319467102,0.312126156,0.30125068,0.258020663,0.235454051,0.203371397,0.178085916,0.170473083,0.137302882,0.134312126,0.125339859,0.128058728,0.129418162,0.122349103,0.133496465,0.133224579,0.129961936,0.144371941,0.151984774,0.165035345,0.160685155,0.160685155,0.161772703,0.169657423,0.187873844,0.181348559,0.202011963,0.191680261,0.194942904,0.195486678,0.198477433,0.198477433,0.193583469,0.207177814,0.210712344,0.204187058,0.199836868,0.204187058,0.208809135,0.212887439,0.208537249,0.210440457,0.224034802,0.209081022,0.1908646,0.186242523,0.184339315,0.170473083,0.172648178,0.152800435,0.1348559,0.110386079,0.102773246,0.075856444,0.069874932,0.054921153,0.038879826,0.029635672,0.024741707,0.02365416,0.017128874,0.017672648,0.014953779,0.016856987,0.010059815,0.011147363,0.023926047,0.017400761,0.017944535,0.010059815,0.012506797,0.011963023,0.01223491,0.013866232,0.007612833,0.013050571,0.031266993,0.022294725,0.008700381,0.012778684,0.006525285,0.024469821,0.029907558,0.010059815,0.021479065,0.026916803,0.022022838,0.029091898,0.008700381,0.008428494,0.002175095,0.014953779,0.013866232,0.008972268,0.003262643,0.017944535,0.020935291,0.007069059,0.014138119,0.01223491,0.013050571,0.020935291,0.014681892,0.012778684,0.014410005,0.016041327,0,0.009787928,0.007612833,0.010059815,0.010603589,0.008156607,0.006253399,0.007612833,0.008156607,0.008972268,0.008156607,0.007340946,0.006525285,0.005709625,0.005709625,0.005709625,0.006253399,0.007069059,0.007612833,0.008428494,0.009787928,0.010875476,0.010875476,0.008972268,0.007340946,0.011963023,0.018216422,0.013866232,0.010331702,0.014410005,0.014681892,0.010603589,0.014138119,0.013050571,0.029635672,0.017944535,0.008700381,0.012778684,0.002718869\nSRI-0000486.txt,NC1=CC2=C(C=CC=C2)C=C1C(O)=O,0.612322144,0.646153754,0.679985364,0.714056914,0.746928762,0.778540922,0.80673393,0.830548024,0.849023442,0.863239917,0.873617343,0.881715335,0.887773832,0.892932553,0.897791348,0.902410202,0.905889339,0.909788372,0.91338748,0.916206781,0.918786141,0.920705665,0.922445234,0.925084579,0.929823404,0.937441515,0.946559253,0.957476546,0.969569547,0.981674545,0.991518104,0.998044485,1,0.996244931,0.987109197,0.971303117,0.948412794,0.918996089,0.882591117,0.839911702,0.792421479,0.740732298,0.686313794,0.630833553,0.575425295,0.520190993,0.46628836,0.414377234,0.365189433,0.31951676,0.278900833,0.244049476,0.214608777,0.191664467,0.174142813,0.162079804,0.154089786,0.149566907,0.147875327,0.147845334,0.148451184,0.148733114,0.148313218,0.14685558,0.144534156,0.140995033,0.137623869,0.134864554,0.132447153,0.130743576,0.129573866,0.12778031,0.125026993,0.120396142,0.113743792,0.104859995,0.093918708,0.082089642,0.070500516,0.059403268,0.049715671,0.041335749,0.0346774,0.029104782,0.024239988,0.019981045,0.01641193,0.013190729,0.010365429,0.008163975,0.005896538,0.004300933,0.003053243,0.001781558,0.000983756,0.000659836,0.000371908,0,3.6E-05,9E-05,0.000335917,0.000851789,0.000623845,0.00060585,0.000959762,0.00128968,0.001607601,0.001859539,0.002489383,0.002735322,0.003221201,0.003905032,0.003797058,0.003863042,0.00379106,0.003803057,0.003941023,0.004132975,0.004342923,0.00435492,0.004528877,0.00447489,0.004534875,0.00491878,0.004882789,0.005578617,0.005896538,0.00608849,0.006544377,0.006892291,0.007552127,0.00826595,0.008781822,0.009189721,0.009753581,0.010653358,0.011265206,0.012194976,0.012920796,0.013784581,0.014348442,0.014966288,0.01613,0.01669386,0.017521655,0.018439427,0.019087266,0.019381193,0.01971711,0.020514912,0.021510665,0.02245843,0.023220241,0.023796099,0.024227991,0.024623893,0.025031792,0.025481681,0.025949565,0.026471435,0.027011301,0.027647144,0.028378962,0.029158769,0.029902584,0.03044245,0.030892339,0.031186266,0.031030304,0.031510185,0.03181611,0.031930081,0.031348226,0.031216258,0.031306236,0.031342227,0.031282242,0.030844351,0.030496437,0.0306464,0.029962569\nSRI-0000727.txt,CC1(C)OCC(CCO)O1,1,0.953414021,0.912993834,0.8771409,0.835578899,0.770495547,0.719799041,0.65311715,0.604247545,0.552180863,0.500114181,0.446905686,0.3875314,0.337519982,0.294587805,0.257593058,0.218086321,0.183146837,0.154144782,0.11852021,0.096597397,0.071249144,0.049783055,0.035167847,0.016213747,0.010276319,0.004110528,0.000685088,0,0.000456725,0.008449418,0.004795615,0.007307604,0.007535967,0.006850879,0.004795615,0.005480703,0.003653802,0.008221055,0.009591231,0.008221055,0.001826901,0.00433889,0.009362868,0.003882165,0.00342544,0.001826901,0.004110528,0.001141813,0.000228363,0.004795615,0.000456725,0.00433889,0.005480703,0.005252341,0.007307604,0,0.004795615,0.007535967,0.006622517,0.004567253,0.003197077,0.005480703,0,0.002740352,0.00342544,0.002283626,0.002055264,0.002511989,0.012788308,0.002968714,0.005480703,0.009591231,0.012331583,0.009591231,0.007079242,0.01301667,0.014843572,0.004795615,0.004110528,0.000456725,0.005937429,0.00776433,0.000228363,0.001141813,0.003653802,0.00433889,0.005937429,0.009362868,0.008221055,0.008906143,0.005023978,0.005709066,0.003882165,0.006165791,0.012559945,0.005480703,0.00867778,0.003653802,0,0.004110528,0.000685088,0.00433889,0.00776433,0.004567253,0.007307604,0.013245033,0.019182462,0.016213747,0.010733044,0.006165791,0.002968714,0.01301667,0.014843572,0.01210322,0.004795615,0.006394154,0.013930121,0.009362868,0.002968714,0.010961407,0.009362868,0.00867778,0.017583923,0.001370176,0,0.007079242,0.014158484,0.001370176,0.005252341,0.010047956,0.015757022,0.012788308,0.005709066,0,0.005480703,0.005709066,0.006394154,0.004567253,0.021009363,0.012788308,0.008449418,0.003653802,0.009819594,0.009591231,0.007079242,0.006165791,0.005480703,0.005480703,0.004795615,0.004110528,0.00342544,0.00342544,0.003197077,0.003197077,0.003197077,0.003653802,0.003653802,0.004110528,0.004567253,0.005023978,0.005480703,0.005709066,0.005709066,0.004795615,0.006165791,0.009134506,0.011646495,0,0.005937429,0.010961407,0.004110528,0.012788308,0.019182462,0.015985385,0.021009363,0.007307604,0.005480703,0.008221055,0.013701758,0\nSRI-1052748-001.txt,OC(=O)C(Cc1c[nH]c2ccc(O)cc12)NC(=O)COc1ccc2c(cc(=O)oc2c1)-c1ccccc1,1,0.973861132,0.948829843,0.923355522,0.897105896,0.870708592,0.843609822,0.815883424,0.787234043,0.757366324,0.726132592,0.694677344,0.662225274,0.628739464,0.595401331,0.562210876,0.530866385,0.500887909,0.473272269,0.447502594,0.42428035,0.402756395,0.38285689,0.364507995,0.347155921,0.330800669,0.315774512,0.302077449,0.290189433,0.280490731,0.272645379,0.266981958,0.26323834,0.261285309,0.260557998,0.260875504,0.261709881,0.263356482,0.265276286,0.267794182,0.270795722,0.274480268,0.279013959,0.284164202,0.289805472,0.295919309,0.30215498,0.308276201,0.314205441,0.320064535,0.325716881,0.330977882,0.33543035,0.339303185,0.342341644,0.344619565,0.346328929,0.347436508,0.34797553,0.347654332,0.346284626,0.343774113,0.340141253,0.335626022,0.330627148,0.325727956,0.321057664,0.317040844,0.314006077,0.311805686,0.310244,0.309568376,0.309302557,0.308981359,0.309162264,0.309623755,0.310369525,0.311355271,0.312167496,0.313430136,0.314519255,0.315818815,0.316712262,0.317616785,0.318469621,0.319089865,0.320068227,0.32137517,0.322659962,0.324398861,0.326477418,0.328282772,0.329881378,0.330590229,0.330531158,0.329460498,0.327282259,0.324535463,0.321711136,0.318794511,0.316280306,0.314286664,0.312898498,0.311864757,0.31095285,0.310096322,0.308985051,0.307475052,0.305304197,0.302313733,0.29896146,0.294158258,0.28907447,0.283207992,0.276976014,0.270367458,0.263223572,0.255943085,0.248695826,0.24090216,0.232960818,0.224668742,0.216125614,0.20722437,0.197444446,0.187099656,0.176662569,0.16593751,0.154798956,0.144088665,0.133548204,0.123218182,0.112666645,0.102436305,0.092612078,0.083275185,0.074757902,0.066842403,0.059491769,0.052861062,0.046869058,0.041482532,0.036417203,0.032448378,0.028797058,0.025681069,0.023824028,0.022960116,0.021775006,0.019305105,0.016458626,0.013918578,0.01210584,0.010920731,0.010101122,0.009425499,0.008775719,0.008118555,0.007435548,0.006730389,0.005984619,0.005153935,0.004242028,0.003319046,0.002484669,0.001890268,0.001528459,0.001347555,0.001033741,0.000893447,0.000683007,0.000476259,0.000206748,0.000199364,0.000103374,5.91E-05,0,6.65E-05,2.58E-05,3.69E-05,7.38E-06\nSRI-1053230-001.txt,Fc1cc(F)cc(Cc2nc3nccc(-c4cccs4)n3n2)c1,0.708646444,0.696377634,0.696377634,0.705579241,0.711713646,0.723982456,0.74238567,0.757721682,0.773057694,0.785326504,0.794528111,0.803729718,0.806796921,0.807410361,0.799742355,0.789313867,0.775511456,0.75526792,0.733797503,0.710486765,0.686869307,0.663251848,0.639634389,0.618163973,0.595466675,0.573996258,0.551912401,0.531055424,0.509585008,0.485354109,0.458669448,0.430451185,0.402447628,0.376959176,0.354936662,0.335735975,0.321289452,0.311044996,0.30353035,0.298132074,0.292948502,0.29095482,0.289145171,0.288163666,0.2906481,0.291997669,0.293776646,0.296843849,0.296751833,0.296721161,0.294298071,0.290985492,0.288255682,0.285249824,0.283562862,0.282151949,0.28080238,0.280557004,0.281323805,0.282059933,0.283102782,0.284881759,0.287090145,0.286507377,0.287090145,0.288623746,0.289451891,0.291936325,0.29276447,0.291598933,0.294727479,0.29807073,0.301904733,0.304205134,0.306198816,0.309756771,0.313621446,0.317946201,0.322056252,0.324663375,0.331809956,0.337760329,0.346379168,0.356592952,0.367236144,0.380118394,0.391712419,0.403797197,0.416802135,0.432690243,0.446063246,0.458209367,0.470631537,0.482225562,0.495537221,0.509278287,0.524736987,0.541115848,0.559488391,0.579118486,0.600435543,0.623776953,0.646198203,0.670919854,0.695549489,0.719749716,0.745912953,0.770941324,0.79345459,0.815599791,0.836027359,0.855964175,0.873109837,0.889028617,0.904487317,0.918872496,0.934177836,0.946906726,0.962212066,0.971045609,0.98211821,0.992638714,0.998834463,1,0.999785296,0.990184952,0.976413214,0.960801153,0.941999203,0.919179217,0.897954176,0.874490078,0.850964635,0.828972794,0.806551544,0.785510536,0.766493881,0.744594056,0.723522375,0.699567524,0.671809343,0.641075975,0.603073337,0.56372113,0.518295862,0.472410514,0.438487256,0.418151704,0.389841426,0.337975033,0.280066252,0.228046499,0.190473269,0.166426402,0.150875686,0.138821581,0.12759562,0.116032267,0.104162194,0.09183204,0.079041806,0.064196546,0.048124406,0.03257369,0.019568751,0.012023433,0.009354967,0.007146582,0.004907524,0.003741987,0.003711315,0.003619299,0.001778977,0.001502929,0.003128546,0.001042849,0.001073521,0.001042849,0,6.13E-05,0.001104193\nSRI-1053348-001.txt,OC(=O)c1cccc(c1)S(=O)(=O)NC1CCCCC1,0.687329529,0.716596386,0.748807246,0.782576696,0.814614379,0.84829724,0.88154716,0.912372607,0.939474755,0.963026782,0.981989627,0.994198582,1,0.998787763,0.992380227,0.978093152,0.958177835,0.932807454,0.90076977,0.865095377,0.82491839,0.781537636,0.735386054,0.687849059,0.638840063,0.589571301,0.541428188,0.494237546,0.449817732,0.408601685,0.369844747,0.334204989,0.301266787,0.271142706,0.244932418,0.221562227,0.201655569,0.185134515,0.170379863,0.156950013,0.143771268,0.131527678,0.12201162,0.115032601,0.110079748,0.105741672,0.100494419,0.093801141,0.086060144,0.078674159,0.072344552,0.066162145,0.060464633,0.055191404,0.050792716,0.047519677,0.044445791,0.039640139,0.033111379,0.026539324,0.020495458,0.016495077,0.013585709,0.01135173,0.010052905,0.008935916,0.008485657,0.007689044,0.006762549,0.006918408,0.006329607,0.005723489,0.005307865,0.005082735,0.005247253,0.004485276,0.004182216,0.004035016,0.003584757,0.003645369,0.003047909,0.003073886,0.00251972,0.002424473,0.002346544,0.001801037,0.001567249,0.001342119,0.001220895,0.000753318,0.000450259,0.000450259,0.000303059,0.0001472,0.000303059,0.000320377,0.000138541,0.000415624,0.000424283,0.0002944,0.00037233,0.0004416,0.000173177,0.000337694,0.000320377,0.000199153,0.000164518,0.000268424,0.000458918,0.00051953,0.00037233,0.000380989,0.000727342,0.000363671,0.000207812,0.000380989,0.0002944,0.000181835,0.000493553,0.000580142,0.000303059,0.000346353,0.000753318,0.000251106,9.52E-05,0.00051953,0.000415624,0.000796613,0.000355012,0.000562824,0.000259765,0.00037233,0.000562824,0.000493553,0.000337694,0.000493553,0.000363671,0.000337694,0.00022513,0.000406965,0.000285741,0.000320377,0.000380989,0.00022513,0.000268424,7.79E-05,9.52E-05,0.000155859,0.000181835,0.000199153,0.000199153,0.000190494,0.000190494,0.000173177,0.000164518,0.000138541,0.000129882,0.000121224,0.000103906,8.66E-05,7.79E-05,6.93E-05,5.2E-05,4.33E-05,5.2E-05,0.000103906,0.000251106,0.000285741,0.000493553,0.000467577,5.2E-05,0,0.000355012,0.000554165,0.000701365,0.000380989,0.000112565,0.000303059,0.000216471,7.79E-05,5.2E-05\nSRI-0000493.txt,CC1=C(C=C(NC(=O)CCC(=O)N2CCCC2)C=C1)C1=CC=CC=C1,0.834993874,0.830963436,0.830963436,0.834187786,0.842248662,0.851921713,0.864013026,0.878522603,0.895450442,0.911572193,0.928500032,0.94357387,0.959211969,0.972189979,0.983555814,0.991777907,0.997581737,1,0.999596956,0.99548591,0.988634165,0.977590765,0.964290321,0.948652222,0.930515251,0.911249758,0.89166183,0.870219901,0.849261624,0.827819694,0.80541046,0.783057651,0.759245824,0.734756884,0.708454246,0.680877991,0.651802412,0.621936867,0.590338234,0.55780454,0.523884375,0.489408009,0.454383504,0.419109112,0.383246276,0.347633327,0.312447604,0.2785355,0.247138389,0.217280905,0.190414007,0.167045528,0.146482234,0.129223899,0.114343522,0.102840653,0.093272393,0.085525892,0.079496356,0.074861353,0.071282324,0.068469078,0.066349068,0.064309667,0.062955439,0.061601212,0.06010995,0.05918295,0.057748114,0.056361643,0.054547946,0.053080867,0.051049526,0.048800542,0.046100148,0.043004772,0.039667569,0.036201393,0.033146321,0.029680144,0.026544464,0.023312053,0.020660025,0.018064423,0.015428516,0.013058619,0.010785452,0.008866963,0.007383762,0.006295544,0.004909073,0.004336751,0.003724125,0.002869672,0.002466628,0.002240923,0.001942671,0.001894306,0.001313923,0.001241375,0.000983427,0.001047914,0.001233314,0.000717418,0.000910879,0.000943122,0.00101567,0.000975366,0.000636809,0.000572322,0.000669053,0.001346166,0.000967305,0.000822209,0.00073354,0.000677114,0.000378861,0.000523957,0.000967305,0.00091894,0.000951183,0.000773844,0.000757722,0.000846392,0.000999549,0.000894757,0.001096279,0.000773844,0.001088218,0.0005562,0.000725479,0.00110434,0.000870575,0.000927001,0.000886696,0.000475592,0.000451409,0.001055975,0.000685174,0.000717418,0.000717418,0.000225705,0.000620687,0.000838331,0.000499774,0.000515896,0.000596505,0.000580383,0.000507835,0.00045947,0.00045947,0.000443348,0.000443348,0.00045947,0.000475592,0.000515896,0.000532018,0.000540079,0.000564261,0.000588444,0.000604566,0.000620687,0.000636809,0.000612627,0.000507835,0.000394983,0.00054814,0.000846392,0.000330496,0.000306313,0,0.000153157,0.000112852,0.000515896,0.000902818,0.000322435,0.000330496,0.000604566,0.000193461,0.000491713,0.000636809\nSRI-0000332.txt,CC(C)(C(O)=O)C1(O)CCCCC1,1,0.981854839,0.935483871,0.913306452,0.889112903,0.862903226,0.836693548,0.816532258,0.784274194,0.754032258,0.735887097,0.715725806,0.689516129,0.675403226,0.653225806,0.635080645,0.612903226,0.594758065,0.568548387,0.554435484,0.534274194,0.504032258,0.477822581,0.451612903,0.421370968,0.397177419,0.368951613,0.356854839,0.373185484,0.375,0.382056452,0.385483871,0.384677419,0.394758065,0.389314516,0.382459677,0.371370968,0.362298387,0.352217742,0.321975806,0.30625,0.284072581,0.257862903,0.228427419,0.204233871,0.177419355,0.155040323,0.130241935,0.112701613,0.104032258,0.097782258,0.105645161,0.115927419,0.110282258,0.110282258,0.109475806,0.103830645,0.109274194,0.102217742,0.103225806,0.101209677,0.10483871,0.098185484,0.10141129,0.105241935,0.107056452,0.111693548,0.100403226,0.101008065,0.103830645,0.1,0.103427419,0.100201613,0.110282258,0.114314516,0.111693548,0.120766129,0.120362903,0.128427419,0.145766129,0.14233871,0.157459677,0.156653226,0.164314516,0.173387097,0.180443548,0.189314516,0.195766129,0.209677419,0.217943548,0.220362903,0.233064516,0.241733871,0.259274194,0.263508065,0.276814516,0.289516129,0.296370968,0.311491935,0.323991935,0.33125,0.35141129,0.355846774,0.36391129,0.37641129,0.391935484,0.390524194,0.415524194,0.435282258,0.434274194,0.42983871,0.447782258,0.451612903,0.46875,0.467943548,0.474798387,0.473991935,0.468346774,0.484274194,0.481451613,0.477620968,0.488306452,0.471975806,0.464314516,0.47016129,0.451612903,0.439516129,0.438709677,0.425604839,0.398991935,0.396975806,0.388508065,0.36733871,0.340927419,0.340120968,0.326008065,0.304032258,0.284274194,0.25,0.242741935,0.227016129,0.214516129,0.191532258,0.183266129,0.162096774,0.148185484,0.138306452,0.133064516,0.126008065,0.111895161,0.095766129,0.081854839,0.072177419,0.065725806,0.061290323,0.05766129,0.054233871,0.050604839,0.046572581,0.042137097,0.037298387,0.031854839,0.025604839,0.018346774,0.010887097,0.00483871,0,0,0.004032258,0.004637097,0.002822581,0.003225806,0,0.007258065,0.006048387,0.005040323,0.008669355,0.010080645,0.005645161,0.004637097,0.003629032\nSRI-0000483.txt,CC1=CC=C(SC2=NC=C(S2)[N+]([O-])=O)C=C1,1,0.92,0.88,0.92,0.84,0.64,0.54,0.5,0.5,0.36,0.36,0.32,0.26,0.2,0.16,0.2,0.16,0.12,0.08,0.06,0.04,0.04,0.02,0.04,0,0.03,0.082,0.168,0.17,0.17,0.222,0.166,0.274,0.288,0.292,0.318,0.302,0.38,0.464,0.378,0.454,0.472,0.442,0.47,0.444,0.446,0.424,0.416,0.386,0.336,0.29,0.306,0.318,0.354,0.224,0.256,0.292,0.266,0.264,0.248,0.206,0.234,0.274,0.208,0.198,0.194,0.224,0.304,0.372,0.292,0.262,0.314,0.336,0.326,0.39,0.368,0.278,0.34,0.396,0.386,0.336,0.324,0.388,0.366,0.328,0.286,0.33,0.264,0.204,0.28,0.23,0.304,0.24,0.3,0.296,0.19,0.232,0.152,0.156,0.206,0.256,0.268,0.276,0.248,0.298,0.248,0.248,0.282,0.224,0.156,0.242,0.342,0.26,0.266,0.212,0.306,0.25,0.228,0.352,0.288,0.326,0.168,0.186,0.274,0.34,0.406,0.426,0.352,0.298,0.21,0.222,0.3,0.36,0.364,0.378,0.274,0.3,0.388,0.438,0.336,0.446,0.442,0.426,0.46,0.486,0.458,0.452,0.454,0.452,0.46,0.476,0.492,0.508,0.522,0.532,0.54,0.55,0.554,0.56,0.562,0.566,0.568,0.57,0.57,0.564,0.574,0.536,0.488,0.564,0.606,0.5,0.494,0.514,0.602,0.504,0.404,0.42,0.544,0.484,0.422,0.422\nSRI-1053178-001.txt,COC(=O)Nc1ccc(cc1)S(=O)(=O)N1CCCCC1C(O)=O,0.169836514,0.152196096,0.141394733,0.135478408,0.133632949,0.134664235,0.138192319,0.143674418,0.151381923,0.160772053,0.172170477,0.184708743,0.199418138,0.216190104,0.234970364,0.255650361,0.278447209,0.303469463,0.33082568,0.360461582,0.392431447,0.425758267,0.461636162,0.49957663,0.538711218,0.579528431,0.620996982,0.662959465,0.705877244,0.747432641,0.788629801,0.827661261,0.863560868,0.897490176,0.926838403,0.952479429,0.972736056,0.987624568,0.997307801,1,0.996303654,0.986614994,0.969821316,0.946584815,0.916167307,0.881027595,0.842001563,0.800560151,0.759124167,0.717867301,0.676344471,0.634913915,0.593792744,0.552079941,0.512256019,0.473913893,0.436917866,0.400632884,0.364635576,0.327965219,0.290887774,0.254499663,0.21933824,0.186489068,0.157075707,0.131081873,0.10832302,0.08834864,0.071468117,0.056775006,0.044719816,0.034792332,0.02697627,0.021027378,0.016060922,0.012413426,0.009558392,0.007626088,0.006193144,0.004879611,0.003913459,0.003435811,0.002659632,0.002382813,0.002002866,0.001883454,0.001503506,0.001492651,0.001508934,0.00139495,0.001335244,0.001378666,0.001460084,0.001503506,0.001291821,0.001308105,0.001617491,0.001753186,0.001964871,0.002165701,0.002268829,0.002513081,0.002605354,0.00261621,0.002431664,0.002599926,0.002893029,0.002746477,0.002806183,0.00291474,0.003093858,0.003066719,0.003392388,0.003441238,0.003354393,0.00368549,0.004130572,0.004461669,0.004407391,0.004098005,0.004282551,0.004222845,0.004146855,0.003902603,0.004043727,0.003728913,0.003669207,0.003728913,0.003479233,0.003614929,0.003490089,0.003289259,0.003500944,0.00363664,0.003642068,0.003354393,0.0035118,0.003376105,0.003414099,0.003658351,0.003419527,0.003115569,0.003484661,0.003490089,0.00326212,0.003207842,0.003256693,0.00326212,0.003240409,0.003191559,0.003099286,0.003023296,0.002952735,0.002882173,0.002811611,0.002746477,0.002675916,0.00261621,0.002551076,0.002464231,0.002377386,0.002274257,0.002165701,0.002019149,0.00186717,0.001785753,0.001758614,0.001411233,0.001367811,0.001487223,0.001313533,0.000879307,0.000645911,0.000613344,0.000825029,0.00059706,0.000336525,0.000320241,0.00042337,1.09E-05,0\nSRI-1052909-001.txt,COC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)C1CN(C(=O)C1)c1ccc(F)cc1,0.99481056,1,0.995136467,0.978465079,0.948882766,0.904659716,0.846748578,0.778608979,0.703700547,0.627513556,0.554535495,0.489479477,0.432270292,0.384336917,0.34490219,0.312762762,0.286665146,0.265280643,0.247230419,0.231536751,0.217597966,0.205388995,0.194107604,0.183628446,0.174152078,0.165202175,0.156979295,0.149307949,0.142589255,0.136748001,0.131764134,0.127757987,0.124594183,0.122618686,0.121498068,0.121450436,0.12226771,0.123779416,0.125937922,0.128703116,0.132077506,0.136033513,0.14033047,0.144411826,0.148485661,0.152439162,0.156680965,0.16080494,0.164710808,0.168042578,0.17037908,0.171890786,0.172903604,0.173344832,0.17292366,0.17176293,0.170075736,0.168393555,0.167235332,0.16656597,0.166252598,0.165683514,0.164572924,0.1623718,0.158676517,0.152902952,0.145913504,0.139377819,0.135298969,0.134017905,0.133496454,0.130861622,0.123240416,0.110963757,0.095906861,0.080937709,0.06742511,0.056066004,0.046471808,0.038519681,0.031793465,0.026150263,0.021457205,0.01763156,0.01444018,0.011832925,0.009774698,0.008105052,0.006671062,0.005788607,0.005061584,0.004605314,0.004226761,0.003805589,0.003589989,0.003429543,0.003424529,0.003411994,0.003319236,0.00343205,0.003349319,0.003271603,0.003254054,0.003311715,0.003251547,0.003206422,0.003106143,0.00313372,0.002958231,0.002965752,0.002865473,0.00286798,0.002687478,0.002549594,0.002499455,0.002381627,0.002241236,0.002035664,0.001927864,0.00167466,0.001481623,0.001371316,0.00132619,0.001163237,0.001173265,0.001062958,0.000925074,0.000737051,0.000611702,0.00045627,0.000536493,0.000413651,0.000233149,0.000238163,0.000401116,0.000288302,0.000283288,0.000228135,0.000233149,0.000188023,0.000140391,0.000243177,0.000147912,0.000172981,0.000167967,0.000213093,0.000220614,0.000210586,0.000175488,0.000122842,7.52E-05,4.26E-05,2.26E-05,1.5E-05,2.51E-05,3.76E-05,4.51E-05,6.02E-05,7.02E-05,8.52E-05,9.53E-05,0.0001078,0.000122842,0.000140391,0.000142898,0.000112814,7.77E-05,3.51E-05,0,7.77E-05,8.27E-05,2.51E-06,0.000137884,8.27E-05,9.03E-05,0.000112814,0.000188023,0.000195544,0.000105293,9.78E-05,0.000172981\nSRI-1052759-001.txt,Cc1oc2cc3oc(=O)c(CCC(=O)N[C@H](Cc4c[nH]c5ccccc45)C(O)=O)c(C)c3cc2c1C,1,0.985518072,0.96493849,0.936736841,0.90167533,0.857467339,0.805637281,0.749233982,0.68901965,0.628805317,0.573164225,0.525526304,0.486425098,0.456546594,0.434442598,0.419655787,0.411728837,0.40868001,0.4097471,0.415082547,0.423466821,0.433909053,0.446256803,0.459366759,0.474839555,0.492446531,0.509977286,0.527203159,0.543895486,0.559596945,0.573743502,0.586281803,0.59677739,0.60474245,0.609346179,0.609788259,0.605573256,0.597272824,0.584749768,0.568141283,0.549009893,0.526463818,0.502080824,0.476287748,0.449572402,0.423238159,0.39732313,0.371766338,0.347421455,0.325965335,0.306994009,0.290423635,0.277290812,0.266795226,0.259089315,0.253746246,0.250499245,0.249660818,0.250857483,0.254157838,0.259325599,0.264935441,0.271208403,0.277618561,0.282580527,0.286643089,0.28989009,0.292931295,0.296849037,0.302618942,0.309181542,0.313914846,0.314791384,0.311430052,0.305690636,0.299493895,0.292954161,0.286734554,0.281703989,0.27702404,0.2724508,0.26847208,0.264653425,0.260781414,0.257229531,0.253487096,0.249828503,0.245979359,0.241421363,0.236794768,0.231863291,0.22662693,0.221230507,0.215773106,0.210544368,0.205216543,0.200269821,0.195704203,0.191313892,0.187190354,0.183737557,0.180711596,0.177982896,0.176199332,0.17456821,0.173089529,0.172296834,0.171603226,0.171069681,0.170780042,0.170650467,0.170848641,0.17095535,0.169987347,0.1701093,0.168950746,0.168440068,0.168562021,0.167929389,0.166999497,0.165802832,0.165238799,0.163782984,0.162045153,0.160063416,0.157731063,0.154872788,0.151663897,0.148424519,0.145253739,0.142082959,0.138668272,0.134255095,0.130169667,0.125642159,0.121084163,0.116388969,0.111861461,0.106815653,0.101815576,0.09696032,0.092082196,0.087127853,0.082714676,0.077592646,0.072790744,0.069475144,0.067531517,0.064802817,0.059314929,0.052897148,0.047020534,0.042584491,0.039512797,0.03727191,0.035358771,0.033445632,0.031418162,0.029253495,0.026898276,0.024329639,0.021379899,0.018110032,0.014626747,0.011212061,0.008612936,0.006920837,0.005769905,0.004840013,0.004306468,0.003300355,0.002797299,0.002233266,0.001814052,0.001394838,0.000556411,0.000228662,0.000167685,3.81E-05,8.38E-05,0\nSRI-1052944-001.txt,CC(C)NS(=O)(=O)c1ccc(NC(=O)C(C)Sc2n[nH]c(=O)[nH]c2=O)cc1,1,0.942383867,0.866762694,0.823550594,0.79114152,0.773136478,0.740727404,0.697515304,0.661505221,0.661505221,0.629096147,0.596687072,0.593086064,0.557075981,0.528267915,0.510262874,0.503060857,0.485055816,0.492257832,0.49585884,0.488656824,0.49585884,0.513863882,0.510262874,0.535469932,0.53907094,0.567879006,0.581562838,0.605689593,0.628015844,0.647461289,0.676269355,0.712639539,0.72596327,0.751170328,0.776017285,0.79546273,0.817788981,0.842996039,0.863881887,0.869283399,0.897011163,0.901332373,0.906733885,0.91753691,0.924018725,0.922578322,0.915376305,0.888368743,0.879726323,0.858120274,0.846236946,0.817068779,0.787900612,0.781418797,0.754411235,0.73460569,0.705437523,0.677349658,0.642779978,0.614332013,0.588044653,0.564998199,0.52610731,0.501980555,0.480374505,0.445444725,0.414476053,0.383147281,0.366582643,0.350018005,0.329492258,0.303204897,0.294202377,0.280518545,0.283039251,0.274756932,0.287720562,0.268995319,0.2610731,0.271876125,0.279798344,0.263953907,0.275477134,0.25207058,0.275477134,0.275837234,0.267915016,0.259632697,0.261433201,0.259272596,0.264314008,0.247389269,0.247389269,0.22614332,0.232265034,0.23046453,0.209938783,0.22182211,0.219301404,0.20021606,0.203456968,0.185091826,0.180410515,0.1739287,0.159524667,0.151602449,0.160244869,0.146561037,0.142239827,0.146921138,0.119553475,0.111631257,0.105149442,0.099747929,0.110190853,0.079582283,0.071299964,0.075621174,0.067338855,0.057976233,0.044652503,0.074900972,0.054015124,0.048253511,0.048253511,0.038170688,0.041411595,0.041051494,0.025567159,0.028808066,0.040691394,0.014404033,0.013323731,0.025207058,0.039611091,0.039611091,0.00864242,0.018365142,0.032409075,0.020165646,0.03492978,0.010803025,0.011883327,0.016924739,0.01728484,0.016204537,0.015484336,0.012243428,0.006481815,0.003961109,0.003601008,0.005041412,0.005401512,0.005761613,0.005761613,0.007922218,0.009722722,0.011523227,0.013323731,0.014404033,0.015124235,0.015124235,0.013683831,0.014043932,0.011523227,0.006481815,0.020885848,0.014404033,0.020885848,0.033129276,0.024486856,0.011523227,0.019445445,0.01728484,0,0.013323731,0.015124235,0.02628736,0.011523227,0.02160605\nSRI-0000045.txt,CC(=O)NC1=CC=CC(NC(C)=O)=N1,1,0.918040796,0.841211677,0.772688408,0.703554416,0.639672652,0.581043117,0.526444363,0.48467082,0.447416636,0.422987663,0.396115793,0.38145841,0.380603396,0.385367045,0.393550751,0.403688775,0.42640772,0.444363015,0.464028338,0.485892268,0.503725418,0.522780017,0.545865396,0.563332112,0.579943813,0.596921949,0.605594235,0.61854159,0.614388665,0.607792842,0.594112618,0.575180164,0.553560523,0.53340662,0.518138512,0.500061072,0.47514352,0.444607304,0.390741419,0.327103945,0.25967998,0.200439722,0.156345426,0.124221326,0.099303774,0.092952241,0.085989984,0.086112129,0.090387199,0.091975082,0.099425919,0.103700989,0.112128985,0.117625504,0.12580921,0.133870771,0.144008794,0.157689019,0.167094174,0.177110053,0.184927324,0.197019665,0.20593624,0.219860755,0.226212288,0.235861732,0.24636619,0.254427751,0.257969952,0.267252962,0.277146696,0.274825944,0.272627336,0.27372664,0.270550873,0.27323806,0.270184439,0.26493221,0.265909369,0.260779284,0.25088555,0.244167583,0.239892513,0.229143765,0.223158666,0.216929278,0.215585685,0.214730671,0.213753512,0.224746549,0.225357274,0.2330524,0.239648223,0.252106999,0.269329425,0.279101014,0.290949066,0.308415781,0.321729571,0.332111885,0.343349212,0.357762306,0.358739465,0.370098937,0.374740442,0.379259802,0.38072554,0.383534872,0.383657017,0.379504092,0.374740442,0.370831807,0.35837303,0.337852693,0.325271772,0.305850739,0.270795163,0.240381092,0.213753512,0.180407964,0.149871748,0.126053499,0.09869305,0.082569928,0.061438866,0.051422988,0.040552095,0.026749725,0.027849029,0.017466716,0.019176744,0.016123122,0.00903872,0.011237327,0.010138024,0.012580921,0.008916575,0.006351533,0.007450837,0.008305851,0.006107243,0.006962257,0.005862953,0.001465738,0.002565042,0.004152925,0.00476365,0.00476365,0.00427507,0.004152925,0.004152925,0.003786491,0.003542201,0.003053622,0.002687187,0.002565042,0.002320752,0.002198608,0.002076463,0.002320752,0.002442897,0.002687187,0.003542201,0.005130084,0.007817271,0.010748748,0.010138024,0.003420056,0.002442897,0.00476365,0.011237327,0.005374374,0,0.003420056,0.006229388,0.005496519,0.008427996,0.006107243,0.005618664,0.005985098\nSRI-1053221-001.txt,Fc1cccc(F)c1CNC(=O)Cn1nnc2ccccc2c1=O,1,0.986471796,0.97548013,0.964126102,0.952530499,0.938519145,0.921306921,0.899383984,0.87480372,0.8478681,0.818335548,0.787655514,0.754861698,0.716813625,0.672243025,0.62199541,0.567459838,0.513165841,0.46104602,0.413032975,0.371844426,0.33760116,0.309699239,0.28711197,0.268873052,0.254136973,0.241635463,0.230764585,0.221041189,0.212157265,0.204463099,0.197759391,0.192396425,0.187752144,0.183760116,0.179870757,0.176078029,0.172303418,0.168299312,0.164844788,0.161927769,0.160436043,0.160321295,0.161257398,0.162948424,0.166040585,0.17073922,0.176367919,0.181984539,0.187063655,0.191575069,0.196376374,0.201576277,0.207537142,0.214077787,0.220473487,0.227110762,0.233633289,0.239968595,0.246285783,0.251860128,0.256437976,0.260049523,0.262863872,0.264307283,0.264796473,0.264844788,0.264041551,0.262157265,0.25978379,0.256456094,0.252633168,0.247946612,0.243175504,0.237323348,0.231936224,0.227249668,0.222822805,0.218933446,0.215666143,0.212875951,0.209650924,0.20591255,0.200887788,0.194316946,0.186755647,0.178348834,0.170008455,0.162507549,0.155670975,0.150404638,0.147016548,0.14525305,0.144262592,0.143519749,0.141424085,0.136399324,0.128566252,0.11802754,0.105356927,0.091726054,0.078385071,0.065943955,0.054644281,0.045198695,0.036936828,0.030184805,0.024797681,0.020491605,0.016934412,0.013993236,0.011849257,0.009626767,0.00823167,0.007023795,0.005803841,0.00494625,0.003895398,0.003255224,0.002796231,0.002536538,0.001950719,0.001775577,0.001684986,0.00106293,0.000736804,0.001050852,0.000917985,0.000609977,0.000815316,0.000724725,0.00038652,0.00057978,0.000543544,0.000646213,0.000628095,0.000646213,0.000217418,0.000477111,0.00048315,0.000259693,0.000271772,0.000187221,0.000247614,0.000295929,0.000338205,0.000332166,0.000314048,0.000271772,0.000205339,0.000163063,0.000120788,9.06E-05,6.64E-05,5.44E-05,4.23E-05,4.23E-05,5.44E-05,6.04E-05,6.04E-05,6.04E-05,6.04E-05,4.83E-05,6.04E-06,0,0,0,4.83E-05,0,0,0.000235536,0.000223457,0.000157024,0.000217418,0.000223457,0.00019326,1.21E-05,0.00019326,0,0,0.000157024\nSRI-1053349-001.txt,C(Cc1nc2nccc(-c3ccco3)n2n1)C1CCCC1,0.80489611,0.825655469,0.843316416,0.856639587,0.865934822,0.870582439,0.870892281,0.867174187,0.859428157,0.848583716,0.834640863,0.818529122,0.799318969,0.776080881,0.748814858,0.717582867,0.682508846,0.643902636,0.603809187,0.562879168,0.523064577,0.48312605,0.441576348,0.397238076,0.351009772,0.304905405,0.262054371,0.225214255,0.195500486,0.173006017,0.157080181,0.146545581,0.140224821,0.137188377,0.136506727,0.137727501,0.140327068,0.143794191,0.148153656,0.153303217,0.158675863,0.164522566,0.170706996,0.176987476,0.18353442,0.189923345,0.196445502,0.203091595,0.209415454,0.215565801,0.221502358,0.226868807,0.231968793,0.236647395,0.240824054,0.244628903,0.248312915,0.251662298,0.254704938,0.257539985,0.259755349,0.261437787,0.262767006,0.263879335,0.265146586,0.26673917,0.269028896,0.272145898,0.276427903,0.281769565,0.288452839,0.295644253,0.303359298,0.31139348,0.319873833,0.328502909,0.33774857,0.347654192,0.358579192,0.37061962,0.383927299,0.399202469,0.415881219,0.433855106,0.453337919,0.473220427,0.492700142,0.511284416,0.528920575,0.545289485,0.561463194,0.577209323,0.593383032,0.61070935,0.629625154,0.650096361,0.671785243,0.694778557,0.71902053,0.742816332,0.766705087,0.789596153,0.81166614,0.831787226,0.850086446,0.867053348,0.882223172,0.89686007,0.911317259,0.925873597,0.940467117,0.955348788,0.969610778,0.982261593,0.992198199,0.998624305,1,0.995677716,0.985490138,0.969610778,0.949471101,0.925554461,0.899608361,0.872955823,0.845974853,0.82063914,0.797388659,0.776046798,0.757648429,0.742497196,0.72822901,0.709074628,0.681176529,0.644900324,0.601178636,0.551935578,0.497967442,0.442155751,0.385773952,0.330975442,0.279021274,0.231727117,0.189793212,0.153275331,0.122721893,0.099443525,0.085903466,0.07908696,0.071607394,0.059192058,0.045202729,0.03287105,0.025156005,0.020908083,0.018460337,0.016647766,0.014971526,0.013320072,0.011699603,0.010082232,0.00844627,0.006562436,0.004656913,0.003002361,0.001753701,0.001099936,0.000883047,0.000808685,0.000616584,0.000520533,0.000350121,0.000278857,0.000275759,0.000235479,0.000238578,8.99E-05,9.3E-05,0,0,9.3E-06,6.2E-06\nSRI-001911.txt,[O-][N+](=O)C1=CC=CC2=C1C(CCCl)=CN2,1,0.855330518,0.739147203,0.669415237,0.615855813,0.56355253,0.531582349,0.51702146,0.518193571,0.533409463,0.560727829,0.597539429,0.641260881,0.688561148,0.7359476,0.780733431,0.82054641,0.854102387,0.880787296,0.896645264,0.908331897,0.919044644,0.924176937,0.924284668,0.920121951,0.911779281,0.899573386,0.883536585,0.863970525,0.840991554,0.814912092,0.786326812,0.755308972,0.73098983,0.70540593,0.670341722,0.63409894,0.597194691,0.560159011,0.523493924,0.487634663,0.452887184,0.419378609,0.386971042,0.355770059,0.325407222,0.295822201,0.274138154,0.252876411,0.225103422,0.198099629,0.172257175,0.147733345,0.124905197,0.104095923,0.085255968,0.06864604,0.054205809,0.041939585,0.031517711,0.024948289,0.019456175,0.013289666,0.008545204,0.005059036,0.002566147,0.000939412,0.000122813,0,0.000398604,0.001426355,0.002917349,0.004951306,0.006153581,0.008816685,0.012052917,0.015743773,0.019781522,0.024353615,0.029311385,0.034650521,0.040355942,0.046477204,0.052811773,0.059514781,0.062966474,0.070093941,0.077617857,0.085260278,0.093053521,0.101088081,0.109297165,0.11746962,0.125825218,0.134012755,0.142295096,0.148338792,0.15439757,0.162421357,0.170169353,0.177822546,0.185264587,0.192499785,0.199558304,0.206435836,0.213054813,0.219553133,0.22438378,0.229195036,0.234346721,0.238933896,0.244815996,0.250779971,0.255479186,0.260238731,0.264886236,0.269143756,0.273358183,0.276275532,0.27906145,0.282676894,0.286186762,0.289597518,0.292629061,0.295792037,0.29871154,0.301611652,0.30456563,0.307554081,0.309465225,0.311835301,0.314569508,0.317364044,0.32035465,0.323336637,0.32642851,0.329294148,0.332605792,0.335803241,0.339067483,0.340924761,0.344217013,0.3477592,0.351592261,0.355308972,0.359178661,0.363227183,0.367254158,0.37127898,0.375676549,0.378443075,0.382043437,0.386163061,0.39062096,0.395050849,0.399312678,0.403596053,0.407648884,0.411348358,0.414815134,0.417631216,0.42004223,0.423392657,0.426469448,0.429339395,0.432248125,0.434779798,0.436930104,0.438757218,0.440717918,0.44188141,0.442538568,0.443184952,0.443592174,0.443684823,0.443176334,0.442732483,0.441189779,0.439754805,0.437863053,0.434891838\nSRI-0000133.txt,OC(=O)C(CSC(=O)C1=CC=CC=C1)NC(=O)C1=CC=CC=C1,0.71127711,0.733771346,0.758608732,0.784852007,0.811095282,0.837807187,0.863113202,0.887950588,0.910444824,0.931626896,0.950934448,0.96616492,0.979567736,0.98950269,0.996532139,1,0.999953137,0.997047632,0.990158772,0.978630476,0.963634319,0.944045588,0.921223312,0.896104748,0.868830487,0.840290925,0.810767241,0.779322174,0.746564943,0.711886329,0.677095244,0.643274223,0.612967927,0.586012334,0.564291338,0.547786192,0.536290701,0.529097231,0.526069882,0.525212289,0.527030573,0.530081354,0.533774158,0.537771571,0.541075412,0.543849701,0.545082198,0.545316513,0.543587268,0.540250623,0.535526834,0.528801994,0.520671265,0.511111215,0.499521997,0.486733087,0.4716104,0.455147431,0.436289763,0.415660674,0.39344293,0.369945826,0.345319324,0.320477253,0.296291263,0.273417437,0.25162146,0.232032729,0.214374754,0.198113296,0.18335614,0.169854912,0.157164414,0.146015708,0.134965415,0.124618067,0.114781525,0.105132435,0.096101936,0.087291694,0.078809493,0.071039609,0.064000787,0.057158791,0.051047856,0.045667985,0.040756744,0.036384426,0.032471367,0.028970701,0.026121431,0.0234643,0.021228935,0.01904512,0.017147169,0.015558513,0.014133878,0.01284046,0.011547041,0.010605095,0.009574109,0.008486888,0.007718335,0.007099743,0.006556132,0.006035953,0.005604814,0.005112752,0.004517592,0.003899001,0.003631882,0.003711549,0.003149193,0.002853956,0.002464993,0.002525915,0.002614955,0.001977618,0.002076031,0.001888579,0.001691754,0.001448066,0.001574597,0.001452753,0.001260614,0.001462125,0.001293419,0.001415262,0.001204379,0.0010263,0.000998182,0.00110128,0.000913828,0.000820102,0.001012241,0.001045045,0.000951319,0.0010263,0.000871652,0.000876338,0.000740435,0.000501434,0.000806043,0.000801357,0.00084822,0.000881024,0.000881024,0.000866965,0.000782612,0.00063265,0.000492061,0.000384277,0.000318668,0.000285864,0.000285864,0.000290551,0.000295237,0.000309296,0.000318668,0.000313982,0.000313982,0.000309296,0.000299923,0.000290551,0.000285864,0.000257746,0.000210883,0.000299923,0.000346786,0.000328041,0.000187452,0.000192138,0.000328041,0.000135903,7.97E-05,0.000220256,0.000234315,0.000145275,0,4.69E-05,0.000201511\nSRI-0000721.txt,CCOC(=O)C(\\C#N)=C1/C(=O)NC2=CC=CC=C12,0.418375402,0.41067406,0.397196712,0.385644699,0.370242015,0.354839331,0.339436647,0.325959298,0.310556614,0.299004602,0.291688327,0.284757119,0.281098981,0.279173646,0.280713914,0.285527253,0.292458461,0.302662739,0.314984886,0.33038757,0.348870791,0.371012149,0.396619111,0.426269277,0.459192514,0.495773889,0.535628333,0.577985714,0.62226843,0.669631683,0.71718747,0.763761335,0.810335201,0.855407305,0.897456632,0.935636035,0.965979322,0.986926972,0.998382718,1,0.99145151,0.975971813,0.951211999,0.915477772,0.867151851,0.802518339,0.727237721,0.645160669,0.563025857,0.485377077,0.415891719,0.355994532,0.304645835,0.260786692,0.225418279,0.195267525,0.16998787,0.1486359,0.130865053,0.116964131,0.105373611,0.095804694,0.088026339,0.082038545,0.078399661,0.076532086,0.074452723,0.074356457,0.074703017,0.077745047,0.079901423,0.083578814,0.087198444,0.092820424,0.099174031,0.106201506,0.113421514,0.121546429,0.13078804,0.140222184,0.149348274,0.160611487,0.172047979,0.183080152,0.194728431,0.206164924,0.219488246,0.231463833,0.24367046,0.256377674,0.269238915,0.282138663,0.29474961,0.305454475,0.317468569,0.329867729,0.340630355,0.351835807,0.361404725,0.371897803,0.382063575,0.390169237,0.398987274,0.406111015,0.413446543,0.419954177,0.424440209,0.428310133,0.432122297,0.433373765,0.433835846,0.433778086,0.432334084,0.429792641,0.426307784,0.420743565,0.415872466,0.409538112,0.402144824,0.392903213,0.384701284,0.375363407,0.363984674,0.352548182,0.340264541,0.326844953,0.313136564,0.298792815,0.284449065,0.269720249,0.255126206,0.24068619,0.224936945,0.208783381,0.19351547,0.17830532,0.163191436,0.149271261,0.135870926,0.122220297,0.110514257,0.099097018,0.086890391,0.077398487,0.068330157,0.060859855,0.05612353,0.0536591,0.050251256,0.043551089,0.035734227,0.028706752,0.02370088,0.02048557,0.018406207,0.016750419,0.01526791,0.013746895,0.01216812,0.010531585,0.008856543,0.006911954,0.004794085,0.002714723,0.000981921,0.00011552,0,0.00040432,0.001328481,0.000250294,0.000731627,0.000577601,0.001193708,0.001771309,0.001925335,0.002522189,0.003350084,0.005063632,0.004409018,0.006180327,0.00619958\nSRI-002160.txt,OC(=O)COC1=CC=CC(=C1)N(CCCl)CCCl,0.454855992,0.443538418,0.432518355,0.423948813,0.41523841,0.402872867,0.389823655,0.376183063,0.362839983,0.350282575,0.339583096,0.331902445,0.328470743,0.330318956,0.338128326,0.351958353,0.371105941,0.394793916,0.422020454,0.444182014,0.467682982,0.500693384,0.535449995,0.571916386,0.610393711,0.651015546,0.693944612,0.738731606,0.785103303,0.831966805,0.87760626,0.919766654,0.955746098,0.977463212,0.991819045,1,0.993051592,0.970070358,0.931710824,0.880229217,0.818606724,0.750400122,0.679246337,0.607769539,0.538215029,0.472088578,0.410487943,0.36759895,0.328518102,0.281993399,0.242544608,0.210460742,0.185564507,0.167338597,0.154864978,0.14729969,0.143656694,0.143082315,0.144952386,0.148634241,0.152305166,0.156701048,0.163315515,0.170497075,0.178084221,0.185937306,0.193794035,0.20160219,0.209075189,0.216250677,0.222873644,0.228746154,0.233681199,0.235739492,0.238882183,0.240531246,0.240606535,0.23885061,0.235290189,0.229795336,0.222420698,0.213042412,0.201749124,0.188555406,0.173622765,0.165653104,0.148778746,0.131249863,0.113498758,0.096312316,0.080243061,0.065656504,0.052944877,0.042125178,0.033199838,0.026089924,0.021635754,0.018205266,0.014382549,0.011547083,0.009395287,0.007783868,0.006592609,0.005650287,0.005006691,0.004512458,0.004112943,0.003802074,0.003679426,0.003434131,0.003356414,0.003118405,0.002993328,0.002843966,0.002775963,0.002812393,0.002758962,0.002733461,0.002723747,0.002734676,0.002743176,0.002746819,0.002748033,0.002748033,0.002743176,0.002693388,0.00274439,0.002687317,0.002630243,0.00269946,0.00250031,0.002473594,0.002442022,0.002325446,0.00220037,0.002044935,0.002015791,0.001850642,0.001729209,0.001684279,0.00157256,0.00138191,0.001306621,0.001123257,0.001067398,0.000987252,0.00082696,0.000814817,0.000669097,0.000581665,0.000656954,0.000505162,0.00053552,0.000448089,0.000378872,0.000491804,0.000429874,0.000377657,0.000418945,0.000384943,0.000370371,0.000292654,0.00033637,0.000246509,0.000361871,0.000229509,0.000285368,0.000246509,0.000290225,0.000253795,0.000264724,0.000239223,0.000274439,0.000264724,6.56E-05,0.000398301,0.000120219,0.000253795,0.000170006,0,0.000265939\nSRI-1053228-001.txt,O=C(Cn1nnc2ccccc2c1=O)Nc1nnc(s1)C1CC1,0.967034542,0.979217429,0.986025512,0.994266877,1,1,0.997133438,0.984592232,0.969184463,0.949476853,0.92654436,0.903970188,0.876737853,0.843055755,0.803282213,0.759208829,0.715135445,0.671062061,0.633438441,0.601189623,0.578257131,0.562132722,0.551741436,0.547441594,0.546724953,0.550308155,0.554607998,0.55962448,0.563745163,0.568976638,0.572488175,0.577289666,0.581732836,0.584384406,0.58800344,0.589472553,0.589651713,0.5890784,0.586068511,0.583631933,0.579941235,0.578507955,0.57718217,0.575032249,0.573061488,0.573849792,0.573957288,0.57345564,0.573061488,0.571592375,0.571484879,0.570875735,0.568618317,0.56582342,0.563601835,0.559588648,0.556471263,0.551956428,0.545793321,0.537516124,0.529848072,0.521069227,0.509029669,0.495413502,0.483553103,0.470832736,0.454278343,0.437867278,0.423964455,0.405188476,0.388526587,0.370395585,0.350652143,0.331052028,0.315680092,0.302673069,0.290884334,0.2799914,0.270997563,0.262147055,0.25745306,0.248566719,0.241328651,0.233803927,0.224308442,0.213594668,0.201626774,0.190196359,0.182707467,0.173283646,0.167478859,0.16464813,0.161745736,0.160563279,0.157696718,0.153898524,0.145370503,0.135695858,0.120431418,0.10627777,0.089759209,0.075892217,0.065859252,0.053031389,0.044073384,0.035760355,0.029848072,0.02554823,0.020997563,0.016231905,0.01490612,0.01171707,0.011143758,0.009459653,0.008778845,0.008098036,0.006091443,0.004873155,0.006593092,0.004013186,0.004765659,0.00444317,0.004908987,0.004335674,0.004801491,0.003332378,0.002006593,0.004156514,0.005553963,0.004371506,0.004586498,0.003511538,0.00372653,0.003619034,0.002364913,0.00408485,0.005912283,0.002508241,0.002078257,0.00372653,0.002257417,0.001397449,0.001648273,0.000859968,0.001684105,0.001791601,0.001469113,0.001110793,0.00071664,0.000214992,3.58E-05,7.17E-05,7.17E-05,0,7.17E-05,0.00035832,0.000609144,0.000824136,0.000967465,0.001182457,0.001361617,0.001576609,0.001648273,0.001612441,0.001361617,0.001504945,0.002185753,0.00283073,0.002042425,7.17E-05,0.001433281,0.001791601,0.001719937,0.001540777,0.002042425,0.001899097,0.001254121,0.002221585,0.002364913,0.001684105,0.002436577\nSRI-0000720.txt,CC1=CC=C(C=C1)S(=O)(=O)N\\N=C\\C1=CC=CC=C1O,0.994368613,0.997834082,1,0.998700449,0.994801797,0.985271758,0.970543515,0.951050254,0.926791972,0.898635038,0.86744582,0.833657499,0.798569628,0.76153243,0.722935772,0.683342791,0.644009721,0.604806605,0.566253265,0.528609611,0.493695013,0.460729741,0.430276934,0.403073004,0.379854364,0.360794285,0.345762815,0.334889906,0.328392152,0.325706414,0.326789373,0.331424438,0.339009482,0.349323584,0.362275773,0.377268258,0.394249055,0.413157519,0.433369865,0.454396597,0.476389328,0.498364732,0.521111203,0.544503117,0.567240924,0.588952086,0.608423688,0.625174898,0.64058757,0.655107884,0.668740172,0.680570416,0.689736581,0.694791834,0.694155054,0.689277406,0.681748676,0.673630815,0.664728892,0.654770001,0.64285312,0.628272161,0.610901498,0.58983578,0.564416567,0.534453257,0.499508337,0.461886341,0.421777872,0.381587098,0.343310995,0.308842577,0.279368765,0.255972519,0.238688493,0.226793272,0.219784361,0.216180274,0.21595935,0.217973654,0.221859311,0.226862581,0.232589268,0.238900753,0.24564109,0.252268799,0.259004804,0.265563204,0.271705747,0.277696676,0.28277792,0.287270034,0.290869789,0.293763456,0.29596836,0.297025328,0.297008001,0.296219607,0.29433959,0.291471915,0.287529944,0.28261331,0.276457771,0.269431533,0.261356991,0.252359768,0.24247885,0.231514973,0.219793025,0.20734766,0.194430125,0.180871479,0.167130895,0.153043765,0.139216544,0.125701216,0.112653726,0.100104397,0.088529732,0.07731894,0.067351386,0.058193884,0.050283952,0.043149418,0.036539036,0.030890322,0.026198944,0.02196674,0.018323666,0.015425668,0.012960853,0.011167473,0.009218147,0.007437762,0.006428445,0.005471109,0.004548428,0.003838007,0.003140581,0.002716061,0.002300205,0.001927667,0.001702412,0.001542134,0.001299551,0.001251901,0.001182591,0.001143605,0.001091623,0.000961668,0.000797058,0.000662771,0.000567471,0.000502493,0.000454843,0.000415856,0.000389865,0.000363874,0.000342215,0.000311892,0.000285901,0.000255578,0.000229587,0.00021226,0.000233919,0.000255578,0.000277238,0.000402861,0.000563139,0.000186269,0.000216592,0.000320556,0,8.66E-05,0.000207928,0.000268574,0.000225255,9.1E-05,8.23E-05,0.000238251,0.00021226\nSRI-0000442.txt,COC(=O)NC1=NC2=CC=CC=C2S1,0.999582874,1,0.994076818,0.979143725,0.951613441,0.90940034,0.854256349,0.789601895,0.725281143,0.665465345,0.614742884,0.573197184,0.540744819,0.511629459,0.486518504,0.465245103,0.447725832,0.435045216,0.427119832,0.4213635,0.416107718,0.408432609,0.39683652,0.382904528,0.368388561,0.356792472,0.35086929,0.351703541,0.358444289,0.369990323,0.385866119,0.403852571,0.424174926,0.445673574,0.467289018,0.48926319,0.510544933,0.530800547,0.549429372,0.566806821,0.582182067,0.59498782,0.605549438,0.613116094,0.618580438,0.622292855,0.623452464,0.622134348,0.618538726,0.612381953,0.603480495,0.591976174,0.577376781,0.56012447,0.540970067,0.521598759,0.500942704,0.478943505,0.455793039,0.431074182,0.407156205,0.387576334,0.374345113,0.367062102,0.360521574,0.350911002,0.335360563,0.314337438,0.288041846,0.259543832,0.23374879,0.218815697,0.217305703,0.224780592,0.228484666,0.215895819,0.184569693,0.145827076,0.111289085,0.085385591,0.068475323,0.057938733,0.050647379,0.045141322,0.040569627,0.036181466,0.031843361,0.027521941,0.023375713,0.019763406,0.017077118,0.014607735,0.012580505,0.011329129,0.009760737,0.009001568,0.008692896,0.007766877,0.007816932,0.007666767,0.007032736,0.006423733,0.006682351,0.00654887,0.006882571,0.006915941,0.006815831,0.006690693,0.006457103,0.006407048,0.006507158,0.006498815,0.00621517,0.00624854,0.006490473,0.00644876,0.006432075,0.006573898,0.00644876,0.005898155,0.006065005,0.006306938,0.005923182,0.005714619,0.005564454,0.005622852,0.005747989,0.005781359,0.004905396,0.005314179,0.005080589,0.005122301,0.005013849,0.004705176,0.004438215,0.00448827,0.004271365,0.004304735,0.003737445,0.003737445,0.003962692,0.003587279,0.003462142,0.003528882,0.003220209,0.002861481,0.002761371,0.002694631,0.002577836,0.002335903,0.002035572,0.00176027,0.001560049,0.001426569,0.001334802,0.001259719,0.001184636,0.001109554,0.001034471,0.000951046,0.000850936,0.000734141,0.000600661,0.000408783,0.000216905,0.000191878,0.000308673,0.000725798,0,0.000625688,0.000317015,0.00020022,0.000275303,0.000108453,0.000542263,0.000442153,0.000442153,0.000742483,0.000433811,0.000275303,0.000317015\nSRI-0000425.txt,CCN(CC)C(=O)C1=CC=NC2=CC=CC=C12,0.691726422,0.70186759,0.719188348,0.742611755,0.769624956,0.800945911,0.834869466,0.867716083,0.900831935,0.932242634,0.960512264,0.983576691,0.998474337,1,0.988692148,0.965358486,0.932332379,0.892665153,0.842767013,0.780125104,0.700880397,0.607186768,0.505416102,0.404812119,0.315067264,0.240399544,0.183232071,0.141760974,0.113365701,0.095138521,0.084710169,0.078365208,0.07500875,0.074093353,0.07422797,0.074721567,0.075879275,0.077252372,0.078616493,0.080267799,0.081766538,0.083687078,0.08503325,0.086639683,0.088542274,0.090373069,0.092203864,0.094151328,0.09593725,0.097723173,0.099293708,0.101043733,0.102802732,0.104714297,0.10641945,0.108555377,0.110090014,0.111929784,0.113975966,0.115429833,0.117682429,0.119459377,0.121101708,0.12306712,0.124745349,0.126764608,0.128792842,0.130291581,0.132983927,0.135155752,0.137955792,0.14077378,0.143923825,0.146337961,0.148222603,0.150555969,0.152126504,0.153652167,0.155321421,0.157421451,0.160086873,0.163649744,0.167849803,0.172776796,0.177299936,0.180521777,0.182316674,0.183321816,0.182846168,0.182262827,0.181517944,0.17994741,0.178412772,0.178296104,0.180243568,0.184255163,0.189586007,0.19355273,0.193759143,0.188796252,0.179211502,0.166297217,0.152422662,0.138969909,0.126037675,0.114397767,0.104229675,0.095398781,0.087788418,0.081048579,0.075385679,0.070512533,0.065388102,0.061627792,0.057589274,0.054385382,0.051010976,0.047941702,0.045213458,0.042314699,0.039281323,0.03681334,0.033744066,0.031518393,0.028763226,0.026142676,0.02416829,0.02198749,0.019995154,0.017895124,0.01640536,0.015122008,0.013506601,0.011675806,0.010248862,0.008884741,0.007861649,0.006775737,0.006416757,0.005259049,0.004487243,0.004146212,0.003724411,0.002809014,0.002557728,0.002225672,0.001992336,0.001857719,0.001750025,0.001570535,0.001328224,0.001094887,0.000906423,0.00078078,0.000691035,0.00061924,0.000547444,0.000493597,0.00043975,0.000394877,0.000367954,0.000332056,0.000314107,0.000332056,0.000332056,0.00026026,0.000287184,0.000412826,0.000673086,0.000565393,0.000251286,0.000116668,0.000161541,6.28E-05,0.000421801,0.000358979,0.000278209,0.000143592,0,0.000215388,0.000251286\nSRI-0000545.txt,CCOC(=O)N1CCN(CC1)C1=CC=C(Cl)C=C1,0.336914904,0.316448788,0.299393691,0.284896859,0.274663801,0.267841763,0.265283498,0.265283498,0.269547272,0.276369311,0.285749614,0.297688182,0.312185014,0.33094562,0.350558981,0.371792576,0.395754986,0.421678733,0.449904918,0.479666061,0.511559092,0.544390152,0.577988692,0.612866365,0.649023169,0.684838872,0.721251503,0.758090511,0.793906214,0.827334203,0.860335815,0.890949713,0.918152592,0.942626655,0.963433873,0.979730018,0.991770916,0.998251853,1,0.99471292,0.984599248,0.96779145,0.945031424,0.916114508,0.881765544,0.842607042,0.798707224,0.750603324,0.699625641,0.646652511,0.593082453,0.539435647,0.487085028,0.436235258,0.38878798,0.345126933,0.305090094,0.269581383,0.238779878,0.211883991,0.189601508,0.171071145,0.155653338,0.143757408,0.134470908,0.126906973,0.121091185,0.117168513,0.113663691,0.111378308,0.109476664,0.107907595,0.106577298,0.10521289,0.103950813,0.102910452,0.101895674,0.100437463,0.099277717,0.098032695,0.096199272,0.094306156,0.092285127,0.089965634,0.087671724,0.085360758,0.082828076,0.080227174,0.077327807,0.074138504,0.07116239,0.067819591,0.064689981,0.061568898,0.058285792,0.05526704,0.052120375,0.048854324,0.045775879,0.043004426,0.039610462,0.036796371,0.03394817,0.031364322,0.02879753,0.02650362,0.02431204,0.02173672,0.019698636,0.017882269,0.015741854,0.014292171,0.012816905,0.011273419,0.009874901,0.008749264,0.007768596,0.006873204,0.005943701,0.004519601,0.004374632,0.004016475,0.00306139,0.002703233,0.002165997,0.002268328,0.001552014,0.001748147,0.001662872,0.001347353,0.001492321,0.001236494,0.001065944,0.000852755,0.000767479,0.000656621,0.000784534,0.000579873,0.000400795,0.000631039,0.000443433,0.00052018,0.000306992,0.000588401,0.000665149,0.000477543,0.00041785,0.000375212,0.000400795,0.00045196,0.000443433,0.00041785,0.000400795,0.000366685,0.000349629,0.000324047,0.000289937,0.000272882,0.000255826,0.000238771,0.000221716,0.000187606,0.000162023,0.000127913,0.000153496,0.000238771,0.000366685,0.000127913,7.67E-05,0.000230244,0.000298464,0.000375212,2.56E-05,9.38E-05,0.000221716,0,0.000247299,1.71E-05,0.000255826,8.53E-05,0.000648094\nSRI-1053070-001.txt,C[C@H](NC(=O)N1CCN(CC1)C(=O)CCc1c[nH]c2ccccc12)C(O)=O,0.983702955,0.988420521,0.993566956,0.998093913,1,0.997760348,0.990564869,0.97788939,0.958351997,0.93500243,0.907888341,0.878248687,0.844367989,0.804006595,0.756163809,0.700553718,0.639654236,0.577182231,0.518188836,0.464341876,0.418452829,0.380092826,0.349595433,0.325054562,0.305707778,0.289887255,0.276592298,0.264631601,0.253952748,0.243493095,0.233624329,0.224432224,0.216264641,0.208897615,0.202069058,0.195311979,0.188330935,0.180825717,0.173644534,0.166611072,0.160664081,0.156089472,0.153511489,0.153216045,0.154369228,0.157604811,0.162708359,0.16928436,0.176465543,0.184866622,0.193453544,0.202464571,0.211990241,0.221639807,0.231046347,0.240691147,0.25017393,0.259408922,0.268272227,0.276835324,0.284778942,0.292388994,0.298617134,0.303801691,0.308152334,0.311130596,0.312898491,0.314070735,0.313903952,0.312841309,0.310601656,0.307447082,0.303267986,0.298378873,0.293156194,0.287814385,0.28277755,0.278360193,0.274609967,0.271526871,0.268300819,0.265098592,0.261091044,0.255787357,0.248587113,0.240367112,0.23067466,0.220991737,0.211427945,0.202793371,0.195064187,0.189160083,0.185405091,0.18297483,0.181688221,0.179000639,0.174149647,0.166134551,0.154712324,0.140211766,0.124267348,0.107803521,0.091582719,0.077063101,0.063830091,0.052431691,0.043206229,0.035262611,0.029144072,0.024016697,0.019885254,0.016487653,0.013685705,0.011312627,0.009587618,0.007943618,0.006647479,0.005394226,0.004789044,0.004117148,0.003202226,0.002859131,0.002539861,0.002087165,0.001968035,0.001639235,0.001343791,0.0009864,0.001029287,0.000991165,0.000686191,0.00066713,0.000528939,0.00053847,0.000586122,0.00053847,0.000324035,0.000405044,0.000381217,0.000366922,0.000243026,0.000247791,0.000314504,0.000524174,0.000390748,0.000247791,0.0002192,0.000238261,0.000233496,0.000190609,0.000142957,0.000114365,9.53E-05,8.1E-05,7.15E-05,6.67E-05,5.72E-05,5.72E-05,6.19E-05,5.72E-05,6.19E-05,7.15E-05,8.1E-05,8.58E-05,8.1E-05,1.43E-05,0,0.000385983,0.000233496,0.000233496,2.86E-05,3.34E-05,0.000190609,0.000104835,0.000204904,0.00020967,0.000390748,0.000395513,0.000243026,0.000128661,0.0001096\nSRI-0000237.txt,CO[C@H]1OC[C@H](O)[C@H](OC(=O)C2=CC=CC=C2)[C@H]1OC(=O)C1=CC=CC=C1,0.866901174,0.895422351,0.914436469,0.933450587,0.957218235,0.971478823,0.976232353,0.985739412,0.995246471,1,1,0.995246471,0.985739412,0.971478823,0.949612587,0.922517469,0.88876741,0.847411703,0.802728526,0.750915054,0.6938727,0.630175405,0.563625992,0.494224462,0.428625755,0.366354518,0.31026287,0.261301516,0.218995104,0.184769691,0.156723867,0.137234397,0.120169226,0.108950896,0.100204402,0.09274136,0.087845225,0.082901554,0.079383943,0.078243095,0.077530066,0.076436754,0.077197319,0.075486048,0.076341684,0.076389219,0.078956125,0.07900366,0.081047678,0.081000143,0.080287113,0.079193801,0.078813519,0.082331131,0.081047678,0.079051196,0.076721966,0.072871607,0.070494842,0.065883919,0.062223701,0.059751866,0.058848695,0.054142701,0.052764177,0.047725436,0.043399724,0.03465323,0.027618006,0.023672577,0.019489471,0.015544041,0.015448971,0.015163759,0.014213053,0.011551077,0.010220088,0.010695441,0.009839806,0.01041023,0.011456006,0.010220088,0.010077483,0.010695441,0.007748253,0.007653182,0.00556163,0.00636973,0.007843324,0.005276418,0.004991206,0.003802824,0.005371488,0.004801065,0.005371488,0.004183106,0.003089794,0.006179588,0.003279935,0.001901412,0.003992965,0.003660218,0.003089794,0.002281694,0.001568665,0.003089794,0.002947188,0.003375006,0.005419024,0.005276418,0.002804582,0.001806341,0.004801065,0.00636973,0.003565147,0.004705994,0.005989447,0.003375006,0.005133812,0.005228882,0.005038741,0.005751771,0.003802824,0.004420782,0.006750012,0.007367971,0.008508818,0.007748253,0.003279935,0.004420782,0.005751771,0.005371488,0.007795788,0.004705994,0.0024243,0.004705994,0.003992965,0.003327471,0.004088035,0.004610924,0.0040405,0.0032324,0.002091553,0.002234159,0.004278177,0.004278177,0.003945429,0.003042259,0.001806341,0.000998241,0.000427818,0,0,0.000237676,0.000617959,0.000998241,0.001283453,0.0016162,0.001901412,0.002234159,0.002471835,0.002757047,0.003042259,0.003279935,0.0032324,0.003184865,0.003327471,0.002519371,0.003422541,0.002329229,0.003945429,0.004705994,0.002044018,0.003422541,0.001426059,0.002852118,0.004230641,0.003707753,0.0024243,0.003660218,0.001996482\nSRI-0000592.txt,COC(=O)N\\C(SC)=N\\C(=O)OC,0.759718573,0.792581378,0.824286414,0.85403215,0.883866946,0.910050318,0.933294741,0.954579864,0.969808968,0.98138665,0.986908314,0.987709845,0.982900655,0.972302623,0.958053168,0.938549227,0.9137908,0.886093423,0.857416396,0.827136305,0.798459278,0.772186846,0.749120541,0.732110255,0.721155987,0.716079619,0.717504564,0.724896469,0.737284588,0.754303781,0.774475665,0.797417286,0.822229149,0.847432872,0.873714209,0.898401389,0.921325199,0.943465289,0.961686779,0.977539297,0.989473215,0.997346039,1,0.998450372,0.991655163,0.979917175,0.962078639,0.938121744,0.909809859,0.875210402,0.836621098,0.794015229,0.747366077,0.69835686,0.648172062,0.597123391,0.546021285,0.495622746,0.446764929,0.400944026,0.357153671,0.316346796,0.278852919,0.244689852,0.213875406,0.1862849,0.161553191,0.139422007,0.120167431,0.10345104,0.088836443,0.07636817,0.065485149,0.055742085,0.048136439,0.041011711,0.034804293,0.029380594,0.025479806,0.0217037,0.018444138,0.015816895,0.013617135,0.011666741,0.009805406,0.008068754,0.007267222,0.00611836,0.005129804,0.004675602,0.0039186,0.003704858,0.002903326,0.002760832,0.002422407,0.002119606,0.002128512,0.001923676,0.001754464,0.001505099,0.001318075,0.001193392,0.001505099,0.001558534,0.001184486,0.001157768,0.000837155,0.001006368,0.000552166,0.001015274,0.000534355,0.000676849,0.000463107,0.000382954,0.000694661,0.001068709,0.000730285,0.000801532,0.00078372,0.001041991,0.00078372,0.000730285,0.000427484,0.000596696,0.00082825,0.00102418,0.00063232,0.000605602,0.000961838,0.000667943,0.000356236,0.000703567,0.000685755,0.00073919,0.00082825,0.000365142,0.000463107,0.000552166,0.00034733,0.000730285,0.000578884,0.000614508,0.000561072,0.000801532,0.000596696,0.00034733,0.000320613,0.00034733,0.000293895,0.000276083,0.00024046,0.00024046,0.000267177,0.000293895,0.000311707,0.000311707,0.000293895,0.000284989,0.000276083,0.000276083,0.000267177,0.00024046,0.000213742,0.000213742,0.000267177,0.000365142,0.000213742,0.000249365,0.000329519,0.00043639,0.00063232,0.00054326,0.000489825,0.000507637,0.000427484,0,0.000365142,0.000650131,5.34E-05,0.000748096,0.00063232\nSRI-0000236.txt,COC(=O)CCC1=CC(NC(=O)OCC2=CC=CC=C2)=CC=C1,0.574742749,0.559818824,0.559072627,0.569519375,0.589666674,0.617275936,0.651600964,0.69040317,0.732190161,0.773977151,0.815764142,0.856058741,0.892622358,0.926201189,0.954705887,0.976867916,0.992164939,0.99992538,1,0.990971025,0.972913076,0.946497728,0.911724982,0.87008723,0.822106811,0.766739048,0.707491064,0.641751173,0.571832583,0.498779969,0.425578116,0.355435667,0.291785125,0.23576071,0.189272683,0.152365815,0.124450613,0.104780879,0.090886705,0.080977219,0.073933126,0.069135084,0.066598017,0.064941461,0.063896786,0.063277443,0.062396932,0.061926828,0.062120839,0.061919366,0.061628349,0.060919463,0.06041205,0.060852305,0.061217942,0.061456724,0.061128398,0.060240424,0.058300314,0.055882638,0.053860446,0.051726325,0.050330938,0.049256415,0.047495392,0.044838934,0.039675255,0.033481826,0.02756449,0.021565072,0.016610329,0.01273757,0.009663242,0.007432115,0.005678554,0.004872662,0.004148851,0.00326834,0.002798236,0.002544529,0.002313208,0.002350518,0.00232067,0.002163969,0.001723713,0.001790871,0.001611784,0.001574474,0.001552088,0.001432697,0.001193914,0.000880512,0.000947669,0.000940207,0.000895436,0.000880512,0.000716348,0.000925283,0.000746196,0.000805892,0.000596957,0.000813354,0.000641729,0.000611881,0.000604419,0.000499951,0.000567109,0.000589495,0.000731272,0.001171528,0.000746196,0.000701424,0.000895436,0.001186452,0.001089447,0.000776044,0.000858126,0.000656653,0.000992441,0.001275996,0.001119294,0.001074523,0.000940207,0.000925283,0.001081985,0.001149142,0.001455083,0.001171528,0.000596957,0.000865588,0.000932745,0.00079843,0.000999903,0.000962593,0.000790968,0.000529799,0.000425332,0.00087305,0.000716348,0.000753658,0.000679039,0.000410408,0.000365636,0.000619343,0.000574571,0.000746196,0.000843202,0.000753658,0.000522337,0.00030594,0.000149239,2.24E-05,0,1.49E-05,5.97E-05,0.000119391,0.000171625,0.000216397,0.000268631,0.00030594,0.000335788,0.000365636,0.000395484,0.000388022,0.000365636,0.000410408,0.00041787,0.000246245,0.000485028,0.00030594,0.000805892,0.000850664,0.000440256,0.000507413,0.000164163,5.22E-05,0.000567109,0.000223859,0.000425332,0.000783506,0.000462642\nSRI-0000544.txt,CCN(CC)C(=O)N1CCN(CC1)C1=CC=CC=C1Cl,1,0.923708816,0.851853166,0.785320157,0.723222682,0.668222061,0.617656974,0.572414527,0.532494722,0.498784664,0.46951014,0.445558256,0.426929014,0.411848198,0.402710998,0.395968987,0.393041534,0.392952824,0.396235119,0.401114206,0.407323954,0.415130493,0.423735429,0.432606497,0.441477565,0.449727658,0.456735802,0.462768128,0.467647215,0.470485957,0.471373064,0.470042404,0.466582687,0.460550361,0.452255913,0.441663857,0.428623388,0.414083707,0.397636748,0.379734932,0.361247627,0.341553856,0.32147863,0.301288079,0.281345918,0.262273122,0.244069691,0.226327555,0.209924951,0.194923975,0.18151092,0.169517236,0.158703405,0.149202491,0.140748363,0.133465217,0.127361922,0.121764278,0.117319873,0.112884339,0.109291557,0.105902809,0.102265671,0.099719674,0.097058354,0.093403474,0.090351827,0.087504214,0.083574331,0.0797509,0.07617586,0.071926619,0.067943509,0.063694268,0.0593918,0.055213527,0.050964285,0.046821496,0.042873871,0.03928996,0.035697177,0.031989071,0.029043876,0.025885776,0.023277682,0.020776041,0.018531661,0.016411476,0.014752586,0.012889662,0.011363838,0.009740433,0.008729131,0.007708958,0.00681298,0.005996842,0.00506538,0.004311339,0.004222628,0.003770204,0.003007292,0.002776644,0.002732289,0.002022603,0.002022603,0.001978248,0.001694374,0.001774214,0.001268563,0.001304047,0.001419371,0.000878236,0.000638717,0.001126626,0.001108883,0.001064528,0.001135497,0.001011302,0.001064528,0.000816138,0.001073399,0.000629846,0.000186292,0.000301616,0.000762912,0.001108883,0.000576619,0.001020173,0.000807267,0.000869365,0.000638717,0.000133066,0.000461296,0.000709685,0.000656459,0.000390327,0.000656459,0.000674201,0.000124195,0.000656459,0.001029044,0.000709685,0.000292745,0.00016855,0.000505651,0.000230648,0.000195163,0.000283874,0.000354843,0.000425811,0.000425811,0.000399198,0.000363714,0.00032823,0.000301616,0.00024839,0.000204035,0.000186292,0.000177421,0.000159679,0.000159679,0.000141937,0.000141937,0.000150808,0.000177421,0.000195163,0.000443553,0.000310487,0.000150808,9.76E-05,0.000363714,0.000523393,7.1E-05,0.000345972,0.000487909,0.000354843,0.000354843,0.000301616,0,0.000124195,0.000195163\nSRI-0000020.txt,COC(=O)NC1=NC2=CC(C)=C(C)C=C2N1CC(O)C(O)C(O)CO,1,0.902470741,0.837451235,0.739921977,0.707412224,0.577373212,0.577373212,0.512353706,0.4473342,0.382314694,0.349804941,0.317295189,0.252275683,0.213263979,0.180754226,0.200260078,0.236020806,0.249024707,0.291287386,0.33029909,0.362808843,0.38556567,0.411573472,0.4473342,0.466840052,0.476592978,0.509102731,0.518855657,0.525357607,0.525357607,0.514954486,0.504876463,0.481794538,0.454161248,0.421326398,0.404421326,0.388491547,0.35923277,0.338751625,0.294213264,0.238946684,0.177828349,0.111183355,0.066970091,0.071521456,0.072821847,0.075097529,0.070546164,0.079973992,0.082574772,0.068920676,0.047139142,0.048114434,0.037061118,0.027308192,0.030884265,0.0263329,0.027958388,0.015604681,0.021781534,0.022756827,0.017555267,0.026007802,0.022756827,0.017880364,0.038036411,0.037386216,0.071196359,0.098504551,0.10923277,0.120611183,0.13426528,0.155721717,0.177503251,0.195708713,0.211313394,0.195383615,0.210988296,0.217815345,0.227243173,0.223016905,0.21716515,0.204161248,0.187256177,0.169375813,0.148244473,0.124837451,0.098179454,0.062743823,0.051040312,0.057217165,0.045513654,0.044213264,0.048439532,0.043563069,0.041937581,0.036085826,0.033485046,0.02503251,0.027308192,0.034460338,0.033159948,0.033810143,0.026657997,0.05136541,0.043563069,0.037386216,0.038361508,0.055916775,0.038686606,0.041937581,0.049089727,0.049089727,0.061118336,0.065019506,0.052990897,0.052015605,0.056892068,0.054941482,0.068920676,0.06046814,0.064694408,0.074447334,0.071196359,0.058842653,0.065344603,0.062743823,0.044538362,0.062418726,0.050715215,0.043563069,0.049089727,0.05006502,0.062093628,0.05916775,0.053641092,0.051040312,0.046814044,0.030559168,0.029908973,0.037386216,0.041287386,0.040637191,0.041287386,0.032509753,0.037061118,0.043237971,0.040312094,0.027958388,0.016254876,0.007152146,0.000975293,0,0.001625488,0.004876463,0.008127438,0.011053316,0.014629389,0.018205462,0.021131339,0.02373212,0.026657997,0.029258778,0.030884265,0.03283485,0.034135241,0.029583875,0.024707412,0.029258778,0.028608583,0.023407022,0.022106632,0.020156047,0.026983095,0.032184655,0.025682705,0.02893368,0.024707412,0.038361508,0.029258778,0.037061118\nSRI-1053241-001.txt,OC(=O)[C@H](Cc1ccccc1)NS(=O)(=O)c1ccc(F)cc1,1,0.948186049,0.89433473,0.838770171,0.783807561,0.728011483,0.672215405,0.616604542,0.562475401,0.509087121,0.457967726,0.409950686,0.364434052,0.322436506,0.284189568,0.24997106,0.219040122,0.191767184,0.16782812,0.146667284,0.128608802,0.113328549,0.100502396,0.089389484,0.080591763,0.073599889,0.06836756,0.064709559,0.062255458,0.060773736,0.06032459,0.0613016,0.063589007,0.066538559,0.069909476,0.073410043,0.077308823,0.082115158,0.088440257,0.095404348,0.102150811,0.1078647,0.112434885,0.116208645,0.120065751,0.125265668,0.131229597,0.137244461,0.1419906,0.143300998,0.139152177,0.131701896,0.123987683,0.119329521,0.11798208,0.117986711,0.115546501,0.107137731,0.092806705,0.075030676,0.056865696,0.041548399,0.029328826,0.020707059,0.014516241,0.010441507,0.007973514,0.006010233,0.004922094,0.003806172,0.003296831,0.0029264,0.002282777,0.002148496,0.001907717,0.001805848,0.001389114,0.001319658,0.001296506,0.001139073,0.001148334,0.000944598,0.001060357,0.000814947,0.000865881,0.000935337,0.000722339,0.000666775,0.000861251,0.000717709,0.000569537,0.000541754,0.000467668,0.000634362,0.000629732,0.000421365,0.000425995,0.000578797,0.00036117,0.00036117,0.000208367,0.000541754,0.000597319,0.000356539,0.000430625,0.000250041,0.000638992,0.000551015,0.000430625,0.00036117,0.000620471,0.00048619,0.000620471,0.000472299,0.000236149,0.000453777,0.000449147,0.000226889,0.000546385,0.000324127,0.000379691,0.000634362,0.00048619,0.000379691,0.000671405,0.000685296,0.000300975,0.000615841,0.000551015,0.000476929,0.000620471,0.000467668,0.000509342,0.000398213,0.000388952,0.000379691,0.000495451,0.000347278,0.00049082,0.00048619,0.000324127,0.000282453,0.000166694,0.00024541,0.000166694,0.000226889,0.000268562,0.00024078,0.000199106,0.000115759,6.48E-05,6.02E-05,5.09E-05,2.32E-05,0,2.78E-05,5.56E-05,7.87E-05,0.000106499,0.000129651,0.000157433,0.000185215,0.000208367,0.000212997,0.000226889,0.00024541,0.000250041,0.000444516,0.000342648,0.000250041,0.00012039,0.000148172,0.000138911,0.000236149,0.000296344,6.48E-05,0.000263932,0.000129651,0.000203737,0.000268562,0.000106499\nSRI-001779.txt,CC1=CC2=C(N=CC=C2)C2=CC=CC=C12,0.283518508,0.347454667,0.409241322,0.454497035,0.499182935,0.557822913,0.615592747,0.672502416,0.729802244,0.787403311,0.84449082,0.898260163,0.944552066,0.978322589,0.996753515,1,0.990906575,0.973367571,0.950142227,0.930427405,0.909116562,0.879895474,0.850695254,0.822148324,0.794222019,0.765813912,0.735914129,0.704120713,0.671451709,0.639431457,0.609445475,0.58280125,0.560831674,0.548209579,0.539930951,0.535540302,0.538822174,0.549038893,0.564812202,0.58483915,0.6076453,0.63206199,0.65686158,0.680851817,0.702825023,0.72179582,0.737010203,0.745477559,0.750607695,0.752239104,0.747282271,0.736375968,0.720996448,0.702905777,0.683994864,0.665056732,0.646594049,0.628370905,0.610170445,0.591521756,0.577052304,0.561488592,0.538804934,0.513323927,0.485152638,0.454394505,0.421815328,0.38842589,0.355483774,0.324330038,0.296026277,0.271394546,0.250592724,0.241590941,0.226060801,0.213208241,0.20202429,0.19157166,0.1808559,0.16919287,0.156392935,0.14285805,0.129403011,0.116845338,0.105634167,0.100642855,0.09190511,0.084628192,0.078709572,0.073915154,0.070133335,0.067198977,0.06517015,0.063894421,0.063117733,0.062678577,0.062483498,0.062173185,0.061661442,0.061009967,0.060142544,0.059120872,0.058028427,0.0569505,0.056171997,0.055926106,0.056429683,0.057400544,0.059091837,0.061561634,0.064292746,0.067429442,0.070427315,0.072511489,0.073462388,0.073125763,0.071517945,0.069015484,0.066916792,0.064861652,0.062583306,0.061271283,0.061337519,0.062928097,0.065964078,0.070110651,0.074735395,0.079049827,0.082377066,0.084105561,0.084366876,0.08310748,0.079809276,0.07483974,0.068784111,0.062412725,0.056485938,0.051188851,0.046847198,0.043500905,0.042129905,0.040023047,0.038525018,0.037438017,0.036778376,0.036395476,0.035972653,0.035882825,0.035686838,0.035346584,0.035246776,0.034864783,0.034490956,0.033779597,0.032900378,0.032099191,0.030955935,0.02962395,0.028253857,0.02665965,0.02533311,0.024031068,0.022202765,0.020347241,0.018342006,0.016393933,0.014545669,0.01272644,0.011023351,0.009376517,0.007962871,0.007220662,0.006036575,0.004815287,0.003703788,0.002948876,0.002032456,0.001505288,0.000908254,0.00024952,0\nSRI-0000342.txt,COC1=CC2=C(C=C1)C1CCC3(C)C(CCC3(O)C(C)C(O)=O)C1CC2,1,0.993604748,0.983372344,0.968023739,0.950117033,0.924536024,0.895117864,0.864420654,0.828607242,0.790235729,0.748027065,0.700702199,0.648261131,0.590703861,0.52803039,0.462798818,0.397823056,0.336172825,0.280534131,0.230395354,0.187547165,0.151733753,0.122571403,0.09865316,0.080362739,0.066165279,0.055677065,0.048130668,0.042886561,0.03930522,0.037770359,0.037642454,0.038281979,0.03904941,0.040993566,0.04362841,0.046365578,0.049077165,0.052530601,0.056841001,0.061701393,0.066178069,0.071230319,0.077548828,0.084660348,0.092871852,0.101377537,0.110279728,0.12047376,0.130680583,0.140810662,0.151477943,0.162298709,0.172748551,0.182763516,0.193136615,0.204584117,0.214995587,0.22420475,0.231572081,0.236278986,0.237583618,0.235076679,0.231725567,0.227670977,0.224550094,0.221582697,0.21887111,0.213089802,0.199941164,0.179719376,0.152603507,0.124080683,0.098755484,0.07836742,0.063632759,0.05350268,0.045956282,0.040341251,0.037245949,0.033549493,0.031336736,0.029891409,0.027601908,0.02661704,0.025708914,0.024250796,0.023112441,0.02231943,0.021334561,0.020579921,0.019748539,0.018341583,0.017228809,0.016538122,0.015386977,0.014325365,0.013250962,0.012087027,0.010731233,0.00938823,0.008723124,0.007942903,0.006497576,0.005499917,0.004911554,0.004029009,0.003606922,0.003274369,0.002148805,0.001701137,0.001560442,0.001880204,0.000959288,0.000690687,0.000690687,0.000665106,0.000793011,0.000805802,0.000856964,0.00126626,0.001227888,0.000920916,0.001381374,0.000332553,0.001240679,0.00075464,0.000677897,0.001304631,0.000984869,0.000805802,0.001099983,0.001330212,0.000422087,0.000601154,0.001061612,0.000677897,0.000690687,0.000972078,0.000984869,0.000805802,0.000703478,0.000562782,0.000984869,0.000652316,0.000908126,0.001036031,0.000703478,0.000665106,0.000703478,0.000741849,0.00076743,0.000780221,0.00076743,0.00075464,0.000741849,0.000729059,0.000703478,0.000703478,0.000703478,0.000716268,0.000690687,0.000690687,0.000665106,0.000677897,0.000729059,0.000422087,0.001061612,0.000626735,0.000486039,0.000972078,0.000959288,0.000588363,0,0.000281391,0.001202307,0.000895335,0.000793011,0.000626735,0.000831383,0.000741849\nSRI-0000430.txt,CCC(CC)(CC1CO1)OCC1=CC=CC=C1,1,0.809358752,0.653379549,0.497400347,0.393414211,0.306759099,0.254766031,0.220103986,0.185441941,0.150779896,0.133448873,0.133448873,0.116117851,0.098786828,0.081455806,0.081455806,0.065857886,0.062391681,0.058925477,0.058925477,0.057192374,0.055459272,0.062391681,0.062391681,0.065857886,0.067590988,0.06932409,0.065857886,0.067590988,0.071057192,0.074523397,0.077989601,0.077989601,0.086655113,0.090121317,0.084228769,0.087521664,0.085268631,0.091681109,0.09202773,0.089081456,0.087001733,0.088908146,0.089254766,0.085268631,0.085441941,0.078162912,0.070017331,0.064298094,0.062564991,0.059272097,0.048006932,0.035181976,0.032755633,0.023743501,0.023570191,0.027729636,0.020450607,0.016984402,0.020103986,0.016811092,0.018197574,0.020797227,0.024956672,0.017157712,0.017157712,0.010745234,0.018024263,0.019237435,0.028076256,0.028422877,0.029289428,0.027902946,0.018024263,0.022530329,0.026863085,0.025823224,0.024436742,0.032582322,0.025303293,0.021837088,0.021490468,0.026516464,0.025476603,0.019584055,0.014904679,0.017504333,0.024263432,0.022183709,0.021663778,0.016464471,0.021143847,0.017850953,0.013171577,0.013344887,0.019237435,0.016811092,0.009878683,0.010918544,0.017157712,0.002772964,0.013171577,0.010051993,0.012305026,0,0.00762565,0.016291161,0.008665511,0.009532062,0.01507799,0.012998267,0.004679376,0.002946274,0.015944541,0.002946274,0.004506066,0.009185442,0.010225303,0.014731369,0.005372617,0.013344887,0.017677643,0.014384749,0.013691508,0.00762565,0.012651646,0.011611785,0.017157712,0.018544194,0.013171577,0.008318891,0.016811092,0.016464471,0.008318891,0.016811092,0.017677643,0.024263432,0.005025997,0.006412478,0.007105719,0.00762565,0.006932409,0.006412478,0.011785095,0.011265165,0.010571924,0.010571924,0.011785095,0.011091854,0.009705373,0.008665511,0.00797227,0.00779896,0.00797227,0.00762565,0.00745234,0.00762565,0.00745234,0.00745234,0.007279029,0.006932409,0.006759099,0.006759099,0.007105719,0.006759099,0.004679376,0.006585789,0.006412478,0.010571924,0.009705373,0.009705373,0.009705373,0.000866551,0.005199307,0.006585789,0.001906412,0.008665511,0.010918544,0.008838821,0.002772964,0.008492201\nSRI-1052946-001.txt,O=C(CCCCCn1nnc2ccccc2c1=O)Nc1nnc(s1)C1CCCC1,0.978093923,0.984500417,0.990080267,0.995453456,0.999586678,1,0.996693422,0.990493589,0.978920568,0.963627646,0.946474775,0.928123269,0.907126501,0.88141786,0.8502327,0.813199031,0.772445462,0.732683866,0.69653884,0.666531648,0.64404692,0.628444007,0.618875598,0.614411719,0.613895066,0.615920345,0.619082259,0.622450835,0.625530086,0.627782692,0.628939994,0.629764572,0.630080763,0.629896835,0.628530805,0.625951674,0.620940143,0.613572674,0.603826537,0.592594506,0.580161774,0.567619512,0.55508345,0.543181837,0.531433153,0.52042845,0.509305949,0.498156583,0.487147746,0.475771053,0.464309628,0.452641542,0.441200784,0.430134082,0.419435237,0.4096643,0.400463748,0.392222103,0.384687239,0.377883956,0.371504327,0.365380959,0.36002017,0.354890842,0.350612957,0.346471468,0.342766035,0.339403659,0.336299609,0.333272024,0.329760852,0.325757826,0.321000488,0.315559101,0.309530797,0.30347976,0.297800713,0.292596986,0.288465831,0.284704599,0.281561283,0.278091443,0.274140083,0.268892958,0.26187268,0.253209447,0.243601772,0.233506378,0.223574245,0.214065768,0.206022518,0.199506493,0.194912417,0.19207496,0.190258409,0.188363327,0.184550429,0.17747022,0.166858173,0.15284035,0.136648453,0.119518314,0.102410908,0.086491804,0.07227352,0.05988832,0.04938167,0.040776302,0.03365476,0.02772152,0.023050979,0.019095486,0.01584264,0.013358574,0.011046036,0.009295616,0.007803523,0.006520158,0.005385588,0.004589943,0.003901762,0.003345843,0.002932521,0.002316671,0.001990146,0.001709087,0.00148176,0.001388763,0.001093237,0.00100024,0.000820445,0.000814245,0.000638583,0.000462921,0.000638583,0.000433988,0.000464987,0.000297592,0.000369923,0.000452588,0.000285192,0.000254193,0.00024386,0.000239727,0.000235594,0.000270726,0.000268659,0.000254193,0.000221127,0.000165329,0.000119863,8.89E-05,6.61E-05,5.99E-05,6.61E-05,7.85E-05,8.89E-05,9.71E-05,0.000101264,0.000105397,0.000107464,0.000107464,0.000103331,8.89E-05,5.79E-05,2.27E-05,8.27E-06,0,2.07E-06,3.31E-05,0.000103331,4.55E-05,0.00010953,5.58E-05,0.000142596,8.06E-05,8.68E-05,2.69E-05,1.65E-05,4.75E-05,0.00014053\nSRI-0000036.txt,NC1=CC=C(C=C1)C(=O)OCC1CC2CC1C=C2,0.504271936,0.501826171,0.496119386,0.486336325,0.473292244,0.456579516,0.435382885,0.41133286,0.384429444,0.354672634,0.32410057,0.29271325,0.262141186,0.234014887,0.20800825,0.185466448,0.166511768,0.150369718,0.137325637,0.126686559,0.118370957,0.112297307,0.108139506,0.105938318,0.105897555,0.10744654,0.110829848,0.115965955,0.122732572,0.131211224,0.141279624,0.152815483,0.166307954,0.181516537,0.197715655,0.215687953,0.235270379,0.256140909,0.278548194,0.302569684,0.327769218,0.354668558,0.382982366,0.412523133,0.442915841,0.474820848,0.507100872,0.539690692,0.57314876,0.606545683,0.639453453,0.671810926,0.703483585,0.734230929,0.763425213,0.791184647,0.817268733,0.841734537,0.864541297,0.88523247,0.904215684,0.921584693,0.937131607,0.951145841,0.963142319,0.973390075,0.98226005,0.98958104,0.994920961,0.998536617,1,0.999225508,0.995618004,0.989259015,0.979598242,0.967018857,0.950538476,0.929684252,0.905740211,0.877817725,0.84551732,0.810216776,0.77164706,0.729726645,0.685482753,0.639518673,0.591765109,0.543473476,0.494741605,0.447081795,0.399988586,0.354868296,0.311867668,0.271659289,0.23429615,0.200283709,0.16968311,0.142828609,0.118966094,0.098507268,0.080755089,0.065986744,0.05349296,0.043257433,0.034933679,0.027779816,0.022179014,0.017903001,0.014491159,0.01145841,0.009322442,0.007675626,0.00624893,0.005246166,0.004292318,0.003742021,0.003187647,0.002531367,0.00225418,0.002152273,0.002152273,0.002034061,0.001569366,0.001520451,0.001561213,0.001410391,0.001231035,0.001080213,0.001243264,0.001047603,0.000823408,0.000913086,0.001084289,0.000917162,0.000786721,0.000660357,0.000705196,0.000953848,0.000774492,0.000550297,0.000639975,0.000611441,0.00055845,0.000403551,0.000476924,0.000688891,0.000680738,0.000476924,0.000195661,8.15E-05,4.08E-05,4.08E-06,0,4.89E-05,0.000122288,0.000171204,0.000199737,0.000228271,0.0002405,0.000244577,0.000236424,0.000216043,0.000191585,0.000150822,0.000130441,0.000187509,0.000171204,3.67E-05,0.000375017,0.000244577,0.00014267,0.000118212,0.000269034,0.000216043,0.000387246,0.000301644,0.000134517,0.000293492,0.000195661,0.000195661,7.34E-05\nSRI-0000022.txt,CSC(=S)N\\N=C/C1=C(Cl)C=C(Cl)C=C1,0.362574034,0.342819635,0.326297774,0.313008451,0.303310837,0.296845761,0.293972394,0.294331565,0.297025347,0.301335397,0.307082132,0.314265549,0.322706065,0.332583265,0.34264005,0.351260151,0.357725227,0.360885931,0.360598594,0.357635434,0.353648637,0.349159001,0.344597531,0.339227926,0.331487794,0.319904532,0.304190806,0.284831495,0.263209407,0.241299983,0.220288486,0.20136018,0.185233407,0.171854292,0.160935496,0.151972387,0.144814111,0.13885367,0.133715731,0.12937515,0.125681078,0.122752039,0.120510813,0.119083109,0.118309095,0.118106164,0.11825522,0.118738304,0.119515909,0.120509017,0.12180742,0.123344671,0.125345253,0.127785819,0.130686124,0.134078493,0.137733057,0.141732425,0.145875461,0.1502771,0.154858325,0.159637094,0.16488458,0.170514584,0.176740812,0.183123278,0.189999605,0.197272815,0.204950093,0.212817732,0.220970911,0.22921927,0.237683132,0.246193686,0.254855093,0.263997788,0.273039915,0.282584881,0.292255557,0.30231773,0.312611567,0.322878467,0.333438092,0.344218606,0.355683341,0.367927476,0.38118627,0.395571064,0.411160876,0.42760372,0.445235419,0.463176005,0.48147217,0.499965879,0.518278207,0.537023335,0.555694834,0.575253485,0.596268574,0.618309095,0.642050291,0.667003689,0.692668245,0.71821607,0.742758217,0.766296481,0.787967057,0.807360489,0.825514782,0.841532008,0.857480991,0.872411725,0.886132053,0.901901451,0.917931248,0.934550085,0.947918425,0.96219906,0.976790377,0.989445763,0.996097608,0.999251129,1,0.989756446,0.973764362,0.953284438,0.934528534,0.919689389,0.909941491,0.907445253,0.908199512,0.90373861,0.893685417,0.882883352,0.869565295,0.857859916,0.841298546,0.820899436,0.795216921,0.761977451,0.722278293,0.676897051,0.628243762,0.576007744,0.520181812,0.466668941,0.429627648,0.407888829,0.37449312,0.315646561,0.261356086,0.220001149,0.191220786,0.172346356,0.159317432,0.148612343,0.13841189,0.128008505,0.117315988,0.106251729,0.094738506,0.082040019,0.068334058,0.054464674,0.041866755,0.033094006,0.027993779,0.024278156,0.021086923,0.018332082,0.015929229,0.013630535,0.011538365,0.009636555,0.008002327,0.006323204,0.004825461,0.003476774,0.002183759,0.001046983,0\nSRI-1053173-001.txt,OC(=O)CC1(CNC(=O)CCc2c[nH]c3ccccc23)CCCCC1,0.973306348,0.990438095,1,0.997609524,0.983067459,0.954381743,0.907468645,0.842387927,0.76141054,0.668381169,0.571865687,0.479951872,0.395946549,0.3230171,0.262458366,0.213453601,0.174986852,0.145225422,0.122555738,0.105603277,0.09319272,0.084029228,0.077375735,0.072455338,0.06906883,0.066738115,0.065483115,0.064825734,0.06500502,0.065901449,0.067285933,0.069166441,0.071668473,0.074614735,0.077909608,0.08158895,0.085917704,0.090475545,0.095461681,0.100471721,0.105856269,0.111424086,0.117109436,0.123039809,0.129016,0.134886612,0.140820969,0.146759311,0.152498446,0.157974629,0.163114153,0.1680724,0.172618289,0.176753813,0.180134345,0.1826304,0.184389393,0.185626464,0.187056766,0.188913369,0.191184322,0.193222203,0.194449314,0.194178393,0.192281949,0.18799702,0.181630385,0.174532662,0.168674003,0.165197852,0.163881098,0.162110153,0.156616042,0.14609197,0.131336754,0.114838483,0.098585236,0.084047156,0.071437393,0.060528853,0.050980892,0.042727773,0.035643994,0.029402859,0.024131859,0.019687565,0.01597635,0.01295439,0.010390604,0.008372643,0.006836762,0.005496104,0.004482143,0.00370723,0.003113595,0.00264546,0.002298841,0.001956206,0.001723135,0.001434286,0.001288865,0.001181294,0.001049818,0.000874516,0.000816746,0.000677302,0.000575706,0.000531881,0.00054981,0.000573714,0.000507976,0.000408373,0.000470127,0.000430286,0.000442238,0.000474111,0.000348611,0.00044423,0.000348611,0.000292833,0.000330683,0.000322714,0.00029881,0.000284865,0.000219127,0.000252992,0.00030877,0.000286857,0.000237056,0.000262952,0.000229087,0.000159365,0.000245024,0.000179286,0.000199206,0.000314746,0.000334667,0.000121516,0.000109563,0.000147413,0.000211159,8.57E-05,9.56E-05,0.000105579,0.000145421,0.000157373,0.000145421,0.000107571,6.37E-05,3.98E-05,2.99E-05,2.19E-05,2.19E-05,2.79E-05,3.19E-05,3.59E-05,4.78E-05,5.38E-05,5.98E-05,5.98E-05,5.78E-05,5.18E-05,4.38E-05,2.79E-05,2.59E-05,2.99E-05,2.79E-05,5.18E-05,4.58E-05,0.000101595,0.000117532,0.00011554,0.000109563,0.000111556,5.18E-05,0,8.17E-05,2.99E-05,1.99E-05,0.000133468,4.98E-05\nSRI-1052912-001.txt,COc1ccc(cc1)N1C(=O)NC(CC(=O)N2CCN(Cc3ccccc3)CC2)C1=O,1,0.973800557,0.954765024,0.941153594,0.929486655,0.917615032,0.901445063,0.880976748,0.85580072,0.824381857,0.787231865,0.748035042,0.706279679,0.661965777,0.618061241,0.575998854,0.535266907,0.497195841,0.461990339,0.428831669,0.398333879,0.370701654,0.34511626,0.321199034,0.298806697,0.278338382,0.259087932,0.241208859,0.224957017,0.209902571,0.196168331,0.184081791,0.172455788,0.16217046,0.152959718,0.145304569,0.139010562,0.133299902,0.128592189,0.123710496,0.119186999,0.1163112,0.114520223,0.112596201,0.110794989,0.108256918,0.105063861,0.103344523,0.10301703,0.102720239,0.10112371,0.098595874,0.095341411,0.091667349,0.088259374,0.084912805,0.08157647,0.078025217,0.075139185,0.071874488,0.06766825,0.062479532,0.056195759,0.04937981,0.041786065,0.035092926,0.02872728,0.022975684,0.018083756,0.014102669,0.010909612,0.008432946,0.006560095,0.005475274,0.004810054,0.00401179,0.003080481,0.002916735,0.002589242,0.002425495,0.002098002,0.002087768,0.001924022,0.001903553,0.001217865,0.001729573,0.001320206,0.001443016,0.001483953,0.001064352,0.000992713,0.001146226,0.001146226,0.00049124,0.000593581,0.000675454,0.001002947,0.000828967,0.000839201,0.000849435,0.000654986,0.001146226,0.00115646,0.000736859,0.000706157,0.000358196,0.000450303,0.000962011,0.000890372,0.000992713,0.001135991,0.000552645,0.00054241,0.001443016,0.000808498,0.000757328,0.001064352,0.000808498,0.000777796,0.001555592,0.001064352,0.00066522,0.001432782,0.000890372,0.00127927,0.001197396,0.001146226,0.001361143,0.000962011,0.001350909,0.001125757,0.000644752,0.000614049,0.000634518,0.001391845,0.001248567,0.001412314,0.000859669,0.000501474,0.000777796,0.000307025,0.000102342,0.000429835,0.000890372,0.000900606,0.000941542,0.000880138,0.000685689,0.000450303,0.000235386,9.21E-05,1.02E-05,1.02E-05,2.05E-05,0.000102342,0.000184215,0.000255854,0.000317259,0.000358196,0.000388898,0.0004196,0.000450303,0.000470771,0.000450303,0.000337727,0.000184215,9.21E-05,0.000358196,0.000644752,0.000358196,0,0.000255854,0.000890372,0.000460537,0.00066522,6.14E-05,0.000235386,0.000634518,0.000828967,0.000552645,0.000716391\nSRI-1052902-001.txt,O=C(CCn1nnc2ccccc2c1=O)NC(c1nc2ccccc2[nH]1)c1ccccc1,1,0.982485734,0.96357248,0.941592211,0.917190615,0.889183932,0.857895006,0.823888813,0.788591245,0.752728701,0.717753977,0.684823929,0.652351243,0.619098352,0.583989109,0.546189504,0.506668066,0.467039013,0.429616058,0.395582961,0.366150386,0.342179248,0.322324366,0.30650503,0.293806514,0.283653083,0.27489595,0.267112729,0.260225399,0.254220508,0.248896278,0.244548651,0.240854782,0.237997616,0.23572964,0.234478621,0.233943239,0.233789888,0.234018569,0.234661566,0.236854212,0.241438591,0.248815568,0.257978945,0.268100092,0.277992558,0.287823146,0.298151451,0.310252706,0.326088185,0.34537809,0.366244549,0.382992061,0.38809837,0.380672967,0.366726124,0.358493612,0.365066169,0.385690495,0.406885178,0.410347676,0.389319795,0.352192781,0.310828444,0.274123816,0.244131645,0.221772035,0.206302445,0.195858455,0.188737063,0.183493544,0.179371908,0.175565044,0.171930363,0.168594312,0.165344353,0.16214013,0.159492813,0.157308238,0.155355034,0.153579394,0.151642332,0.149455067,0.146452621,0.142788346,0.138249703,0.133084206,0.127466727,0.121886913,0.116732177,0.112139727,0.108357076,0.105674783,0.103823813,0.102505535,0.100998932,0.098359685,0.094281095,0.088246609,0.080595216,0.071832702,0.062733893,0.053629704,0.045276125,0.03783189,0.031068316,0.025593427,0.020941789,0.017145686,0.014188977,0.01162506,0.009459318,0.00792312,0.006548344,0.005496412,0.004544024,0.003723463,0.003155796,0.002722648,0.002235692,0.0019263,0.001538888,0.001372085,0.001194521,0.001154166,0.00096315,0.000721017,0.000610712,0.000634926,0.000586499,0.000608022,0.000556905,0.000484265,0.00037127,0.000312082,0.000271727,0.000252894,0.000215229,0.000244823,0.000172183,0.000166803,0.00014797,8.07E-05,8.07E-05,0.000121066,0.000182945,0.000199087,0.000209848,0.000215229,0.000201777,0.000191016,0.000177564,0.000158731,0.000142589,0.000126447,0.000115686,0.000107615,9.95E-05,9.15E-05,8.88E-05,9.15E-05,9.15E-05,0.000102234,0.000121066,0.00014528,0.000180254,0.000201777,0.000188325,0.00014797,0.000234062,6.46E-05,6.46E-05,0,5.92E-05,0.000191016,0.000126447,8.34E-05,5.11E-05,0.000161422,0.000166803,5.65E-05\nSRI-0000591.txt,COC(=O)NC1=NC2=C(N1)[N+](C)=CC=C2,0.760195928,0.793859276,0.825442304,0.855985173,0.884825962,0.911586433,0.935320984,0.955367696,0.970591851,0.981939047,0.988085444,0.988085444,0.983357446,0.97333409,0.958488175,0.938063223,0.914044992,0.886906282,0.856647093,0.826766144,0.797641674,0.771826804,0.749605212,0.731922499,0.720386183,0.715469065,0.716982024,0.724168582,0.736442465,0.753302507,0.773784195,0.796875739,0.82155589,0.847077624,0.872287311,0.897506454,0.921042429,0.942753397,0.961154766,0.976965192,0.988577156,0.996170321,1,0.998222273,0.990837139,0.978534888,0.961637022,0.937722807,0.90871181,0.874622942,0.836004652,0.793064972,0.746777869,0.697852543,0.647508818,0.596588276,0.545384055,0.494879578,0.446540524,0.400404717,0.356831485,0.315905932,0.278327802,0.244229478,0.213223266,0.185706316,0.160903237,0.139069341,0.120119524,0.103372954,0.088697247,0.076092404,0.065359848,0.056007867,0.048045918,0.040509489,0.034826435,0.029512165,0.025389351,0.021342184,0.018117689,0.015498378,0.013219483,0.01110134,0.009522188,0.008094333,0.006789406,0.006080206,0.005153518,0.004586158,0.003943151,0.002921903,0.002732783,0.002572031,0.002023583,0.002165423,0.001843919,0.001900655,0.001219824,0.001484591,0.001418399,0.001011792,0.001248192,0.001437311,0.001021248,0.001049616,0.000671376,0.00089832,0.00108744,0.000860496,0.0004728,0.000453888,0.000737568,0.00056736,0.001077984,0.000879408,0.000860496,0.000340416,0.000264768,0.000747024,0.00085104,0.000955056,0.000718656,0.00080376,0.000652464,0.00085104,0.000482256,0.00052008,0.000860496,0.000624096,0.000198576,0.0007092,0.000557904,0.000491712,0.000434976,0.00042552,0.000482256,0.000122928,0.000321504,0.000359328,0.000132384,0.000463344,0.000245856,0.00042552,0.00052008,0.00042552,0.000444432,0.000416064,0.000368784,0.000293136,0.0002364,0.0002364,0.000217488,0.000217488,0.000208032,0.00018912,0.000170208,0.00014184,0.000122928,0.000104016,8.51E-05,6.62E-05,2.84E-05,2.84E-05,5.67E-05,0.000198576,0.000160752,0.000434976,0.000302592,0.000340416,0.000312048,0.000434976,0,0.000151296,0.000104016,0.00056736,0.000245856,0.000368784,6.62E-05,0.000501168,0.000453888\nSRI-0000547.txt,CC1=NN=C(S1)N1CCN(C1=O)[N+]([O-])=O,0.474977358,0.470595109,0.464898186,0.459639487,0.453212188,0.44620059,0.437728242,0.429255894,0.420491396,0.412165123,0.40267025,0.393905752,0.387332379,0.380759006,0.374477782,0.369365158,0.366297584,0.363960384,0.363668235,0.364252534,0.366268369,0.369569663,0.374638464,0.379780303,0.387668351,0.396856467,0.407037892,0.419425049,0.433083058,0.449049052,0.466256683,0.485465541,0.506222794,0.529258816,0.553171288,0.578456864,0.605977388,0.634841801,0.663706214,0.693812264,0.72418125,0.75493003,0.785664203,0.815200561,0.844649274,0.872125975,0.897455374,0.920345321,0.941555406,0.960004674,0.974655993,0.986341991,0.994785124,0.998816793,1,0.997268398,0.991542259,0.981652984,0.968623097,0.952613281,0.933199918,0.911186421,0.886587397,0.859738818,0.830713722,0.799366035,0.768237459,0.734464927,0.7014812,0.666992901,0.631598937,0.596847702,0.562505478,0.528557656,0.494901984,0.462721669,0.432031318,0.401282538,0.37238891,0.344941424,0.31894008,0.294428701,0.271334249,0.249525256,0.228928686,0.209749043,0.192117795,0.175377604,0.160185807,0.146089573,0.132825966,0.120877034,0.109410149,0.099053434,0.090040609,0.080940138,0.07351953,0.066142744,0.059452511,0.05374098,0.047810336,0.042858395,0.039191913,0.035393964,0.03121622,0.028075608,0.024759707,0.021604487,0.019121213,0.016930089,0.015294049,0.013862514,0.012241082,0.01102866,0.009816238,0.00869146,0.007639721,0.006266616,0.006091326,0.005930644,0.004937334,0.004338426,0.004177744,0.004236174,0.003564229,0.002585527,0.002790032,0.002877677,0.002307984,0.002337199,0.001679862,0.00192819,0.002264162,0.001898975,0.001723685,0.00105174,0.001270852,0.001475357,0.001300067,0.000949487,0.001475357,0.001446142,0.000803412,0.001007917,0.00075959,0.000715767,0.000671945,0.000598907,0.000394402,0.000262935,0.000146075,4.38E-05,0,1.46E-05,7.3E-05,0.000102252,0.000146075,0.000189897,0.000219112,0.000277542,0.000335972,0.000379795,0.000438225,0.000482047,0.00046744,0.00046744,0.000452832,0,0.000204505,0.000788805,0.000540477,0.000379795,0.000277542,0.00035058,0.000335972,0.000613515,0.00099331,0.00093488,0.000774197,0.000861842,0.00075959\nSRI-1053056-001.txt,COc1ccc(cc1)C(=O)Nc1n[nH]c(CCCc2c[nH]c3ccccc23)n1,1,0.999247404,0.992641279,0.979066669,0.957715229,0.927081765,0.885242977,0.830916662,0.764911166,0.689066167,0.610433774,0.535787355,0.468360287,0.411051461,0.365784178,0.331666472,0.307722755,0.292141221,0.283193685,0.279319207,0.27948645,0.282636206,0.288183121,0.295402472,0.303959772,0.31391077,0.324781608,0.336265672,0.34883682,0.361840015,0.375581869,0.390112555,0.404607005,0.419647785,0.434841871,0.450150241,0.465578468,0.480772554,0.496108798,0.51086805,0.525699775,0.539606085,0.553398112,0.566303748,0.578568283,0.589999387,0.600711343,0.61027768,0.618812682,0.626023671,0.631358743,0.63521371,0.63771679,0.639297242,0.639709777,0.638940456,0.636769076,0.632632582,0.626815291,0.619414759,0.610840734,0.600881374,0.589216129,0.575906321,0.560433496,0.541456915,0.51911595,0.494545069,0.469734473,0.444739908,0.420826853,0.396281059,0.370023804,0.340393803,0.308363855,0.275578524,0.243333947,0.213157616,0.185813278,0.160932997,0.138745338,0.118779233,0.101288334,0.085784847,0.072385842,0.06077077,0.050764025,0.042321007,0.035168554,0.029209105,0.024303291,0.020152861,0.016888822,0.01416275,0.011980221,0.010118241,0.008682733,0.007350359,0.006296724,0.005243089,0.004571327,0.003868903,0.003180417,0.002703772,0.002344199,0.002151868,0.001834105,0.00164735,0.001388122,0.001332374,0.001388122,0.001162343,0.001151194,0.001061997,0.00104806,0.000953289,0.001039698,0.00098395,0.000788833,0.000875242,0.000852943,0.000724723,0.000576991,0.0006634,0.00072751,0.000624376,0.000702423,0.000616014,0.000635526,0.000549117,0.000557479,0.000565841,0.000610439,0.000585353,0.000443196,0.000429259,0.000359574,0.000222992,0.000289889,0.000301039,0.000398597,0.000273165,0.000340062,0.000248078,0.000197905,0.000200692,0.000181181,0.000186755,0.00020348,0.00020348,0.000181181,0.000158881,0.000131008,0.000111496,9.48E-05,8.36E-05,7.8E-05,7.53E-05,7.25E-05,7.8E-05,9.2E-05,0.000103134,0.000119858,0.000131008,0.000122645,0.000111496,0.000108708,0.000231354,0.000119858,0.000114283,6.97E-05,0.000153307,0.000264802,0.000105921,0.000105921,0,8.08E-05,0.00019233,5.02E-05,3.34E-05,7.25E-05\nSRI-0000209.txt,COC1=CC=C(C=C1)C(=O)OCCN(CCOC(=O)C1=CC=C(OC)C=C1)C1=CNC(=O)NC1=O,0.404313932,0.362269522,0.32810844,0.302706609,0.285188105,0.274677003,0.269859414,0.270297377,0.275114965,0.283173477,0.294166338,0.30761179,0.323466036,0.341115929,0.361218412,0.383247931,0.407116892,0.432693908,0.460635922,0.490067008,0.520593001,0.552870845,0.586199799,0.620798844,0.656186222,0.692011562,0.727705514,0.763530854,0.798611659,0.832378575,0.863986336,0.893242237,0.919918539,0.943524723,0.963430123,0.979065388,0.990649499,0.9976569,1,0.997626243,0.989361888,0.975044891,0.955336574,0.930517234,0.903035081,0.874545614,0.845605045,0.81510971,0.782717996,0.748175886,0.712166601,0.677309158,0.644755398,0.613896553,0.582468357,0.548088293,0.509354881,0.468076906,0.425944904,0.385407086,0.347619673,0.313357859,0.281281479,0.250645995,0.22154338,0.193509394,0.167722157,0.14519774,0.126877765,0.112000175,0.100070074,0.090820304,0.083992467,0.078833268,0.075132484,0.071869662,0.069544081,0.067967416,0.066609732,0.065357158,0.064446196,0.063732317,0.063075373,0.062256383,0.061485569,0.06088994,0.059983357,0.05912933,0.058358516,0.057530767,0.056523453,0.055489861,0.054469408,0.053343844,0.052327771,0.051189068,0.049962773,0.04882407,0.047584636,0.046143739,0.044715981,0.043450269,0.042114483,0.040616651,0.039355319,0.037923181,0.036346516,0.034945036,0.033569833,0.032347917,0.030740595,0.029409188,0.028064643,0.026628126,0.025309859,0.023969693,0.022774055,0.02142513,0.020435335,0.01920904,0.018114133,0.01685718,0.015762274,0.014781238,0.014150572,0.013213332,0.012236675,0.011277537,0.01030526,0.009678973,0.009065826,0.008325669,0.007970919,0.007327114,0.006499365,0.005772347,0.005408838,0.005093505,0.004524154,0.004252617,0.003998599,0.003547497,0.00304384,0.002842377,0.002640914,0.002513905,0.002430692,0.002286165,0.002036526,0.001699295,0.001366443,0.001086147,0.000919721,0.000832129,0.000805851,0.000792712,0.000779573,0.000762055,0.000740157,0.00070512,0.000665703,0.000617527,0.000547453,0.000459861,0.000363509,0.000341611,0.000394166,0.000310953,0.000214602,0.000302194,0.000429203,0.000416064,0.000324092,0.000306574,0.000135768,0,3.94E-05,0.000223361,0.000140148,0.000402926,0.000157667\nSRI-0000157.txt,COC(=O)CCCCCCCCC(=O)C1=CC=CS1,0.068775815,0.066188961,0.065326676,0.065326676,0.06791353,0.071362668,0.076536375,0.084296936,0.092919782,0.10585405,0.119650602,0.135171724,0.153279699,0.172249959,0.193807072,0.217088755,0.242267463,0.268912056,0.297971044,0.32944443,0.362297471,0.396961309,0.432832346,0.47051418,0.508885842,0.548982073,0.589250761,0.630467962,0.671598934,0.711953851,0.752050081,0.790163058,0.826034095,0.858938873,0.88820481,0.915573721,0.940200567,0.960403894,0.977201197,0.98981642,0.99705961,1,0.995981754,0.986496624,0.972113718,0.952358779,0.930008364,0.904821033,0.879763044,0.855472489,0.834268912,0.816316148,0.802269533,0.792103198,0.785558459,0.782333514,0.781686801,0.782850885,0.785515344,0.789430116,0.793120694,0.796311147,0.799035966,0.800062084,0.799605074,0.796483604,0.790723543,0.782574954,0.771813643,0.757491097,0.739978098,0.719757526,0.696562072,0.670848747,0.642858991,0.612851489,0.580662407,0.54691259,0.513016185,0.477981564,0.442489933,0.407481181,0.373722741,0.340266101,0.308396065,0.278104009,0.249381311,0.223167861,0.198670357,0.176259582,0.156289072,0.138612239,0.122565124,0.108518509,0.096144726,0.085107484,0.075993136,0.068172215,0.061144596,0.055298307,0.049986635,0.045226824,0.041674212,0.038233696,0.035586483,0.032792681,0.030559364,0.028205327,0.026489381,0.024325047,0.023109226,0.021927896,0.020177458,0.019522122,0.017995878,0.016504126,0.015900527,0.014883031,0.013684456,0.012813548,0.012339292,0.011468384,0.010597477,0.0103043,0.009476507,0.008959136,0.008536617,0.008139966,0.007260436,0.006630968,0.006096352,0.00594114,0.005820421,0.004897776,0.004621845,0.004561485,0.004147589,0.003794052,0.003526744,0.00348363,0.003138716,0.002569608,0.002776556,0.002440265,0.002431642,0.002466134,0.002336791,0.00218158,0.001957386,0.001646963,0.00136241,0.001129593,0.001008873,0.000948513,0.000948513,0.000965759,0.000974382,0.000965759,0.000957136,0.000922644,0.00087953,0.000845039,0.000767433,0.000707073,0.000646713,0.000525994,0.000517371,0.000870907,0.000327668,0.000655336,0.000439765,0,0.000413897,0.000534616,0.000603599,0.000327668,0.00024144,0.000534616,0.000370782,0,0.000612222\nSRI-0000396.txt,COC(C1=NC2=C(C=CC=C2)N1C1=CC=CC=C1)C1=CC=CC=C1,1,0.959391086,0.918782172,0.878173257,0.835369267,0.793662814,0.750858824,0.709152371,0.665250842,0.62354439,0.585130552,0.54946056,0.516095398,0.486132605,0.460230703,0.437511661,0.418634004,0.402609946,0.389878503,0.379671397,0.372208137,0.367269215,0.364415616,0.363208324,0.363866847,0.366171677,0.369903307,0.373415429,0.377915336,0.382305489,0.386256626,0.390328493,0.393730862,0.396771043,0.39943806,0.401841669,0.403356272,0.404673318,0.405123308,0.404245278,0.402236783,0.400766082,0.399536839,0.399449036,0.400107559,0.401248998,0.403268469,0.404289179,0.406001339,0.409370781,0.415659675,0.423836335,0.432825173,0.439553082,0.440595744,0.434800742,0.424791193,0.415780405,0.412740224,0.415187734,0.416307223,0.407768376,0.384259107,0.351003699,0.31499347,0.27996005,0.246671715,0.214535796,0.180490161,0.145632347,0.113573255,0.085344572,0.06274626,0.045361255,0.033255408,0.024672659,0.018241085,0.014663111,0.011600979,0.009021764,0.007210826,0.005674273,0.004905996,0.004181621,0.003117009,0.003073107,0.002579215,0.002381658,0.002008495,0.00185484,0.001986544,0.001799963,0.001547529,0.00130607,0.001338997,0.001086563,0.001086563,0.000735351,0.0007134,0.001064612,0.000878031,0.000867055,0.000790228,0.000801203,0.000219508,0.000241458,0.000812178,0.000658523,0.001064612,0.000954858,0.000867055,0.000592671,0.000131705,0.000801203,0.000943883,0.000625597,0.000691449,0.001053637,0.000834129,0.000362188,0.001075587,0.000976809,0.000801203,0.000976809,0.00128412,0.000812178,0.000482917,0.001152415,0.001020711,0.000581695,0.000592671,0.001042661,0.001053637,0.001108514,0.000724375,0.001042661,0.001382898,0.000878031,0.000296335,0.000680474,0.000614621,0.000614621,0.000373163,0.000219508,0.000504868,0.000559744,0.000526818,0.000559744,0.000526818,0.000471941,0.000449991,0.000439015,0.000417065,0.000439015,0.000439015,0.00042804,0.000406089,0.000384138,0.000373163,0.000340237,0.000296335,0.000274385,0.000230483,0.000208532,0.000219508,0.000164631,0.000109754,0.000252434,0.000790228,0.000373163,0.000373163,2.2E-05,0.000351212,0.000449991,0.000373163,0.000164631,0.000614621,0.000460966,0.000175606,0,0.000614621\nSRI-0000427.txt,[O-][N+](=O)C1=CC=CC(=C1)N1CCNC1=O,0.307637119,0.321514207,0.338128953,0.356065326,0.375134523,0.395997357,0.419314642,0.444331162,0.471235722,0.498517889,0.526649674,0.556763901,0.586878127,0.616992353,0.647012178,0.676087983,0.704974983,0.73367318,0.760483338,0.788237515,0.814953271,0.842424242,0.868856792,0.896044558,0.920966676,0.944850373,0.965807609,0.981978665,0.99375059,1,0.999933919,0.993816671,0.980647597,0.961568961,0.935193052,0.903738318,0.866751628,0.825403568,0.780024545,0.732266591,0.683356934,0.634003587,0.585037289,0.538157274,0.493099216,0.45142075,0.412602662,0.376984801,0.345294062,0.317379401,0.292967054,0.272783914,0.255130747,0.24036628,0.228037383,0.218351742,0.210063249,0.20382328,0.198801095,0.194515246,0.190097234,0.185301614,0.181204569,0.176588313,0.171990937,0.166855471,0.161691683,0.156376853,0.150325687,0.14372699,0.137269895,0.131086567,0.124166903,0.116954593,0.109336354,0.102180685,0.095572548,0.08892665,0.082563957,0.077003682,0.071547248,0.066893231,0.061861607,0.057519116,0.053601435,0.050221845,0.046596809,0.044057396,0.04136694,0.038978571,0.037298216,0.035882186,0.034031908,0.033106769,0.032502596,0.031511375,0.031464174,0.031143208,0.030954404,0.031209289,0.031350892,0.031473615,0.032172189,0.032719721,0.033616539,0.03363542,0.034664401,0.035202492,0.035967148,0.036448598,0.037619182,0.037864628,0.038374398,0.039167375,0.039639384,0.040101954,0.040791088,0.041215897,0.041687907,0.042150477,0.042735769,0.042688568,0.043094496,0.043462664,0.04325498,0.043585387,0.043481544,0.04329274,0.042905692,0.042952893,0.042981214,0.042934013,0.042594166,0.042254319,0.041961673,0.041319739,0.040640045,0.040337959,0.03989427,0.03895969,0.038298877,0.037817427,0.036863967,0.03605211,0.035287454,0.034343434,0.033625979,0.03317285,0.032549797,0.031341452,0.029849901,0.028443312,0.027310488,0.02646087,0.025781176,0.025139243,0.024487869,0.023760974,0.022930237,0.022014538,0.020957236,0.019758331,0.018351742,0.016746908,0.014962711,0.013310677,0.012140093,0.011205513,0.010676862,0.009270273,0.007892004,0.007155669,0.006409893,0.005116586,0.004446332,0.004172567,0.003030303,0.001831398,0.001066742,0.000585292,0\nSRI-0000609.txt,CC12C[C@@H](O)C3C(CCC4=CC(=O)C=CC34C)C1CCC21OC(C)(C)OCC1=O,0.423966468,0.439597529,0.455807518,0.472017507,0.48996428,0.507911053,0.52817354,0.548436026,0.570435296,0.593592423,0.617328478,0.641643461,0.667000515,0.693225961,0.719335622,0.745329497,0.772481228,0.798301425,0.824005836,0.84936289,0.873272623,0.896140286,0.916808022,0.93608633,0.953512068,0.967927379,0.979969085,0.989752971,0.996410645,1,0.999421072,0.995466992,0.987500941,0.976646038,0.962253883,0.945233395,0.92487828,0.902137982,0.876450939,0.849021322,0.819634928,0.789160149,0.756566493,0.723417066,0.688941893,0.653586749,0.61747321,0.581359671,0.544464578,0.507824214,0.471490682,0.435741868,0.400149363,0.365818923,0.33295896,0.301129489,0.271048381,0.242854579,0.216455454,0.192198364,0.169365437,0.149068215,0.130687246,0.114430943,0.099975106,0.087464468,0.076609565,0.067589864,0.060011694,0.053058767,0.047541582,0.043072256,0.039135544,0.035470929,0.03288312,0.030376361,0.028309588,0.026404914,0.024934436,0.023353962,0.021941378,0.021188771,0.020019336,0.019052526,0.017987298,0.017043645,0.016377878,0.015353175,0.014287947,0.013077987,0.012342749,0.011601721,0.010825957,0.010467021,0.010003879,0.009708625,0.009396004,0.009181801,0.009320744,0.009037069,0.008504455,0.007919737,0.007983419,0.007624484,0.007282916,0.007207656,0.006790827,0.006246635,0.006055589,0.005760335,0.00548245,0.005216143,0.004729843,0.004243544,0.004081444,0.003832505,0.003531462,0.003236208,0.002871484,0.002269398,0.002454655,0.002489391,0.002107299,0.002026249,0.002159402,0.002101509,0.001684681,0.00152837,0.00169047,0.001308378,0.001123121,0.001360481,0.001198381,0.001099964,0.000995756,0.000874182,0.000775764,0.000677346,0.000515246,0.00056735,0.000329989,0.000353146,0.000503668,0.000457353,0.000468932,0.000428407,0.000422618,0.000411039,0.000358935,0.000329989,0.000283675,0.000248939,0.00024315,0.00024315,0.000231571,0.000225782,0.000214203,0.000208414,0.000202625,0.000196836,0.000185257,0.000167889,0.000150521,0.000133153,0.000138943,0.000191046,0.000237361,0.000208414,0.000138943,7.53E-05,0.000370514,0.000509457,6.95E-05,0,0.000191046,0.000225782,0.000289464,7.53E-05,9.26E-05,0.000196836,0.000109996\nSRI-0000033.txt,NNC(=O)CC1CC2CCC1C2,1,0.911341393,0.834196891,0.766263673,0.696027634,0.628094416,0.560161197,0.506044905,0.457685665,0.441565918,0.425446172,0.413932067,0.404720783,0.393206678,0.378238342,0.360967185,0.342544617,0.328727691,0.311456534,0.289579735,0.268854347,0.2527346,0.231318365,0.213701785,0.194703512,0.180886586,0.167415083,0.157743235,0.145538284,0.139090386,0.131145653,0.125618883,0.117904433,0.10765688,0.102820956,0.098791019,0.09337939,0.086931491,0.078180771,0.068393782,0.062521589,0.060909614,0.051007484,0.043177893,0.039147956,0.034772596,0.031778929,0.026597582,0.024640184,0.01980426,0.014738054,0.015198618,0.014507772,0.013356362,0.011859528,0.010592976,0.00875072,0.008290155,0.008635579,0.009556707,0.012665515,0.008865861,0.010132412,0.01208981,0.010247553,0.009671848,0.008290155,0.01208981,0.010017271,0.015313759,0.00875072,0.007023604,0.010247553,0.009556707,0.0154289,0.011974669,0.013010938,0.017156016,0.021416235,0.021070812,0.021531376,0.020955671,0.020379965,0.022337363,0.026021877,0.025215889,0.021416235,0.019458837,0.013932067,0.016925734,0.018307427,0.016004606,0.013471503,0.011283823,0.016234888,0.010132412,0.008405296,0.013010938,0.008520438,0.007484168,0.006447899,0.005296488,0.005411629,0.004029937,0.008635579,0.008175014,0.005181347,0.004260219,0.006908463,0.002878526,0.002417962,0.004951065,0.007829591,0.006793322,0.002072539,0.001266552,0.003684514,0.002763385,0.005066206,0.005181347,0.006678181,0.003914796,0.008981002,0.008290155,0.00771445,0.005757052,0.009786989,0.006102476,0.005641911,0.008175014,0.004029937,0.002763385,0.006447899,0.005641911,0.006908463,0.006678181,0.005296488,0,0.00656304,0.009096143,0.006678181,0.007829591,0.007944732,0.006793322,0.005411629,0.00437536,0.005181347,0.00552677,0.005641911,0.005987334,0.006447899,0.006447899,0.006217617,0.005987334,0.005641911,0.005296488,0.005066206,0.004720783,0.004490501,0.00437536,0.004260219,0.004260219,0.00437536,0.004720783,0.005066206,0.006332758,0.007829591,0.005757052,0.004490501,0.00552677,0.005987334,0.005411629,0.005872193,0.001727116,0.002993667,0.00656304,0.003914796,0.004260219,0.004260219,0.007253886,0.005757052\nSRI-1052913-001.txt,CN(c1c(C)ccc(c1C)S(=O)(=O)NC(CCC(O)=O)C(O)=O)S(C)(=O)=O,1,0.992082832,0.987250275,0.983103187,0.980224217,0.97837345,0.976248496,0.974466277,0.971038931,0.966000733,0.958837582,0.948624092,0.934640523,0.915927217,0.892415627,0.863523105,0.828906917,0.788841249,0.744217211,0.694280789,0.641156935,0.584879923,0.526375137,0.466567959,0.407411977,0.349774309,0.295910149,0.246731169,0.203289566,0.166096014,0.135284178,0.11051818,0.091112551,0.07604594,0.064910495,0.056787686,0.051002327,0.047194546,0.044881088,0.043835748,0.043835748,0.044295012,0.045199831,0.046474804,0.047646956,0.049154988,0.050748704,0.052458949,0.054313143,0.056479225,0.059227956,0.061606534,0.063827454,0.065338913,0.065499998,0.064697999,0.063145412,0.061555124,0.059999109,0.058792683,0.058484222,0.05892635,0.058936632,0.057198968,0.052393829,0.04473714,0.035870597,0.027377635,0.020204201,0.014669038,0.010542515,0.007663544,0.005699675,0.004369865,0.003293679,0.002621919,0.002351159,0.002100963,0.001689681,0.001429203,0.001206426,0.001370938,0.001209853,0.001206426,0.000849982,0.000915101,0.000771153,0.000678614,0.000644341,0.000678614,0.000640914,0.000754016,0.000496965,0.000544948,0.000462692,0.000548375,0.000664905,0.000390717,0.000548375,0.000534666,0.000455837,0.000572367,0.000579221,0.000534666,0.000483256,0.000411281,0.000476401,0.000644341,0.000541521,0.000496965,0.000582649,0.000431846,0.000397572,0.000579221,0.000664905,0.00045241,0.000366726,0.000356444,0.00050382,0.000664905,0.000486683,0.000610067,0.000572367,0.000493538,0.000493538,0.000500392,0.000510674,0.000551803,0.000342735,0.000603213,0.000541521,0.000472974,0.000390717,0.000325598,0.000664905,0.000459264,0.000493538,0.000431846,0.000421563,0.000493538,0.000332453,0.000332453,0.000390717,0.000329025,0.000329025,0.000377008,0.000356444,0.000311888,0.000253624,0.000195359,0.000143949,0.00011653,0.000109675,0.000123384,0.000143949,0.000164513,0.000185077,0.000202213,0.000215923,0.00021935,0.000222777,0.00021935,0.000209068,0.000181649,0.000133666,5.83E-05,0,7.2E-05,7.88E-05,0.000123384,0.000222777,4.11E-05,0.000222777,3.43E-05,0.000229632,7.88E-05,0.00011653,6.17E-05,0.000202213,0.000325598,0.000250196\nSRI-0000594.txt,[O-][N+](=O)C1=CC=C(NC(=O)NCCCl)N=C1,0.799571622,0.791601808,0.781888597,0.767692365,0.751005566,0.730209332,0.707047059,0.683013088,0.656364021,0.626975331,0.596465885,0.565582855,0.533703598,0.503443209,0.472684707,0.444292243,0.416522421,0.390495996,0.365465798,0.34267711,0.321382763,0.301458227,0.282529918,0.265594062,0.250028019,0.23558273,0.222631782,0.210552532,0.199095924,0.188784977,0.179594785,0.171375914,0.164452138,0.158698928,0.153555907,0.149782698,0.146358168,0.144290998,0.143120431,0.141837789,0.142099299,0.142796658,0.14482647,0.146993263,0.15005666,0.154166096,0.158512135,0.163941571,0.169744592,0.176195161,0.18286988,0.190503468,0.198709886,0.20694121,0.21577027,0.224698953,0.234636315,0.244137828,0.254511039,0.26558161,0.27731218,0.28855709,0.301134453,0.314446534,0.328020124,0.342951073,0.358579381,0.375440519,0.392500903,0.411267325,0.43105488,0.451938284,0.474066971,0.49659415,0.519731517,0.544276054,0.568758328,0.594436073,0.61950363,0.645480244,0.671519121,0.697072339,0.722364046,0.747556131,0.771527838,0.795238036,0.817316912,0.839022203,0.859942966,0.879568634,0.897637697,0.914399213,0.929205634,0.943738092,0.957075078,0.967809422,0.977173954,0.985367919,0.991718865,0.996251697,0.999389811,1,0.99991283,0.997820754,0.994084903,0.988468675,0.981183766,0.971769423,0.962093571,0.95018866,0.936552806,0.922256952,0.906180342,0.888709015,0.869992404,0.850503717,0.830604087,0.809957287,0.787156146,0.764579156,0.742176506,0.718665554,0.69519196,0.670859121,0.645554961,0.620661744,0.595108526,0.569704743,0.545434168,0.522408876,0.500828114,0.479259803,0.457492248,0.435899032,0.415165062,0.393447318,0.373684669,0.354059002,0.334645032,0.316140119,0.298145773,0.280126521,0.263066137,0.24700198,0.231062351,0.216903478,0.207439324,0.202009888,0.194475922,0.179470256,0.16204874,0.145922319,0.134042315,0.125773632,0.119808724,0.114703062,0.10951023,0.104118152,0.098128339,0.091715129,0.084579655,0.076385689,0.067008705,0.056772474,0.04656115,0.038628694,0.033186805,0.028940388,0.025540764,0.022626801,0.019438875,0.01616378,0.01366076,0.010921136,0.009376985,0.007185286,0.005628681,0.004184153,0.002689812,0.001295095,0\nSRI-1053186-001.txt,Cn1c2ccc(cc2n(C)c1=O)S(=O)(=O)N1CCCC1C(O)=O,0.988001609,1,0.999910627,0.984739476,0.951984092,0.901957279,0.836468853,0.760747162,0.678121369,0.591898293,0.506881759,0.427451068,0.354812763,0.290888373,0.236973814,0.192979712,0.158369828,0.132183394,0.113303244,0.100098311,0.091585486,0.08671463,0.084480293,0.084078112,0.085286889,0.08767763,0.090973277,0.095082224,0.10001564,0.105599249,0.111754849,0.118518188,0.125672536,0.133213424,0.14103137,0.148851551,0.156647153,0.163812673,0.170464295,0.176291447,0.180958978,0.184373045,0.186330324,0.186828582,0.185539369,0.182384485,0.177600769,0.171297703,0.163741174,0.155228349,0.146431763,0.138006077,0.130328894,0.123788989,0.118795245,0.115483957,0.114098668,0.114572348,0.116596657,0.120211815,0.125225668,0.131358924,0.138475288,0.146514434,0.155194834,0.164172401,0.17334659,0.182337564,0.190600143,0.197933238,0.20394584,0.208410046,0.211227545,0.212449727,0.212476539,0.211252123,0.208515059,0.203659844,0.195866476,0.184180892,0.16881312,0.14991733,0.129082134,0.107572169,0.08693583,0.068357315,0.05224104,0.039156761,0.028889981,0.020996068,0.015142104,0.010865582,0.007945303,0.00574895,0.004207257,0.003143713,0.002533738,0.002031013,0.001597551,0.001311556,0.001036733,0.000893735,0.000873626,0.000759675,0.000672536,0.000616677,0.000589865,0.000480383,0.000395478,0.000440164,0.000417821,0.000507195,0.000406649,0.00026812,0.000348557,0.000290464,0.000214496,0.00023684,0.000382072,0.000326213,0.000241308,0.000230137,0.000221199,0.000149701,0.000140763,0.000207793,0.000259183,0.000180981,0.000230137,9.61E-05,0.000216731,0.00016981,0.000290464,0.000156404,0.000160872,0.000156404,0.000205559,9.16E-05,8.04E-05,0.000158638,0.000127357,0.000105014,0.000125123,0.000149701,0.000122889,0.000116186,0.000127357,0.000109483,7.37E-05,4.47E-05,2.9E-05,3.35E-05,4.47E-05,4.47E-05,3.8E-05,4.69E-05,4.69E-05,5.14E-05,4.92E-05,4.69E-05,4.47E-05,4.02E-05,3.35E-05,4.47E-05,5.36E-05,5.14E-05,5.59E-05,9.61E-05,7.15E-05,0,0,0.000149701,6.26E-05,0.000109483,8.94E-06,4.25E-05,0.000136295,6.93E-05,3.8E-05,8.71E-05,4.69E-05\nSRI-0000581.txt,CN1CCN(CC1)C1=CC=CC=C1,0.568835659,0.579330782,0.594579578,0.614211631,0.637918262,0.66211878,0.688603531,0.719656748,0.74984566,0.782257069,0.814730214,0.842017533,0.875169774,0.901592789,0.921224843,0.945548833,0.967712063,0.980800099,0.992282998,0.99907396,1,0.995616743,0.985368564,0.9708606,0.949993826,0.925855044,0.897147796,0.864119027,0.825966169,0.784911717,0.742313866,0.696690949,0.649401161,0.602666996,0.555747623,0.506420546,0.461476726,0.41801457,0.376651438,0.335782195,0.299666626,0.268428201,0.240029633,0.214532658,0.193480677,0.176441536,0.161933572,0.150080257,0.14149895,0.134707989,0.128472651,0.124706754,0.122978145,0.120632177,0.118903568,0.118780096,0.120323497,0.118286208,0.119088776,0.118965304,0.117607112,0.115693295,0.115014199,0.111989134,0.111556982,0.108470182,0.105012965,0.101494012,0.097851587,0.092912705,0.088405976,0.083405359,0.081244598,0.077663909,0.071737252,0.066119274,0.06043956,0.057229288,0.052784294,0.048586245,0.045190764,0.039325843,0.034819113,0.030806272,0.032164465,0.02852204,0.023459686,0.020496358,0.019632053,0.017965181,0.01487838,0.012161995,0.009754291,0.009569083,0.007099642,0.006852698,0.006790962,0.007099642,0.005803186,0.006790962,0.00605013,0.002778121,0.005679714,0.004383257,0.003272009,0.001975553,0.000864304,0.002716385,0.003272009,0,0.005247561,0.002654649,0.00123472,0.000370416,0.002284233,0.003765897,0.000370416,0.002531177,0.002345969,0.004136313,0.004012841,0.005062353,0.001790344,0.002037289,0.006235338,0.003395481,0.001790344,0.003889369,0.003518953,0.002222497,0.002716385,0.004136313,0.002345969,0.003333745,0.002839857,0.002531177,0.003765897,0.003704161,0.001111248,0.001852081,0.003457217,0.003704161,0.004012841,0.003086801,0.003025065,0.002160761,0.002037289,0.002284233,0.002160761,0.001419928,0.000987776,0.00092604,0.000864304,0.000740832,0.00061736,0.000679096,0.000802568,0.00092604,0.001111248,0.001296456,0.001358192,0.001481664,0.001605136,0.0015434,0.001481664,0.001666872,0.002099025,0.002222497,0.002901593,0.001111248,0.001666872,0.003210273,0.002963329,0.002901593,0.002345969,0.003086801,0.003580689,0.004259785,0.001975553,0.002901593,0.004568465\nSRI-0000556.txt,[O-][N+](=O)C1=CC=C(S1)\\C=C\\C1=NC=CN1,0.139815867,0.136384076,0.132005586,0.126562056,0.121355202,0.115319985,0.108456404,0.102421187,0.095675944,0.088102338,0.081357096,0.07425684,0.067038247,0.059582978,0.052719398,0.04573748,0.038992237,0.032365332,0.026685127,0.020756414,0.015679731,0.011277573,0.007064754,0.004224652,0.0018579,0.000319512,0,0.000923033,0.002757266,0.005455363,0.009277667,0.014401685,0.020543406,0.027986841,0.036021963,0.045299631,0.055535833,0.06705008,0.078730001,0.091829973,0.105651803,0.119852315,0.135129698,0.150111237,0.166193316,0.182074221,0.198298305,0.214948405,0.230971315,0.247585913,0.263715327,0.279548897,0.294423933,0.309204298,0.321972924,0.334291868,0.345025088,0.354113415,0.362337877,0.368290258,0.373319606,0.376621225,0.378088611,0.378845972,0.377082742,0.374266307,0.37008899,0.364160276,0.356764177,0.348658052,0.337972167,0.327108776,0.316115213,0.303961943,0.291228818,0.279548897,0.268105652,0.257407933,0.248224936,0.239621793,0.232616208,0.226285146,0.221433305,0.216960144,0.212912998,0.210392407,0.2083215,0.206854113,0.204783206,0.203812837,0.203410489,0.202960807,0.202724131,0.202913472,0.203244817,0.204144183,0.20435719,0.204948878,0.206167755,0.207859983,0.209209032,0.210711919,0.212546152,0.214321216,0.216794471,0.219019218,0.221882988,0.224947931,0.22768153,0.231420998,0.235255136,0.239112941,0.243775443,0.249467481,0.255218688,0.262259775,0.269857048,0.278306352,0.287950866,0.297914892,0.309784152,0.32139307,0.33398419,0.347971694,0.362373379,0.377934772,0.393732841,0.409779419,0.426666193,0.442653602,0.458238663,0.475350279,0.492284389,0.510177033,0.529253053,0.54778472,0.567061914,0.585297737,0.604030578,0.623721954,0.643058317,0.663199375,0.682405567,0.701599924,0.721303134,0.739420619,0.752070908,0.759514343,0.76869734,0.788838398,0.81323961,0.835759254,0.853107545,0.865047808,0.873461611,0.880834043,0.888419483,0.896572943,0.904963079,0.914595759,0.924488782,0.936653886,0.950582221,0.965421755,0.979799773,0.990248982,0.996012023,0.998698286,1,0.999798826,0.997301903,0.994449967,0.98989397,0.984024425,0.977172678,0.969551737,0.960345072,0.94973019,0.938890467,0.926524188,0.914015905\nSRI-1052753-001.txt,Cc1cc(OCC(=O)N[C@@H](Cc2ccccc2)C(=O)NCCC(O)=O)c2c3CCCc3c(=O)oc2c1,1,0.906091371,0.82100556,0.745226009,0.675852067,0.617355572,0.567681895,0.523326082,0.486101039,0.453589558,0.42434131,0.401740392,0.382886149,0.367174281,0.355934252,0.347111433,0.341914431,0.338530336,0.336475707,0.33708001,0.338772057,0.341430989,0.34408992,0.346748852,0.347836597,0.348320039,0.347715736,0.345419386,0.34167271,0.336934977,0.331484167,0.325562001,0.318805898,0.309402949,0.297171864,0.281327049,0.261300459,0.238010636,0.210490694,0.183442108,0.159004109,0.139738941,0.126734349,0.119446459,0.11653372,0.117802756,0.121863669,0.126806865,0.133381678,0.141358472,0.150543872,0.160913706,0.17106599,0.182789461,0.195649021,0.208677786,0.222975586,0.237635968,0.25281605,0.268648779,0.28542422,0.302344694,0.319929901,0.338083152,0.356043026,0.373978729,0.391974861,0.410454436,0.428849408,0.447546531,0.465965676,0.484590283,0.502477641,0.519458545,0.535653855,0.551401982,0.567017162,0.58254774,0.596591733,0.610986222,0.623966642,0.636475707,0.647933285,0.658133913,0.666823785,0.673495286,0.679030699,0.682837805,0.685496737,0.687031665,0.687732657,0.687684312,0.687019579,0.685097897,0.681979695,0.678559343,0.673434856,0.665893159,0.655692531,0.644174523,0.629997583,0.614201112,0.596084119,0.577483684,0.5591854,0.540500363,0.521634034,0.503057771,0.485472565,0.467210539,0.450120861,0.430952381,0.411469664,0.390560793,0.367633551,0.344210781,0.318540005,0.291926517,0.266388687,0.240717912,0.216654581,0.193473532,0.172069132,0.153178632,0.13496495,0.119591491,0.10649021,0.094500846,0.084481508,0.075985013,0.06883007,0.063343002,0.056212231,0.052018371,0.048247522,0.044295383,0.040923374,0.038554508,0.036415277,0.033321247,0.031810491,0.030094271,0.028160503,0.026951898,0.025453227,0.024208364,0.023459028,0.023156877,0.022335025,0.020316655,0.018056563,0.01613488,0.014624124,0.013524293,0.012678269,0.01194102,0.011215857,0.010466522,0.009668842,0.008834905,0.007940537,0.006937394,0.005837563,0.004677302,0.003649988,0.002900653,0.002332608,0.001595359,0.001534929,0.001571187,0.001281122,0.000966884,0.000833938,0.000157119,0.000447184,0.000664733,0,2.42E-05,0.000205463,0.000241721,0.000737249\nSRI-1053259-001.txt,OC(=O)C1CCN(CC1)C(=O)Cn1nnc2ccccc2c1=O,0.999201726,1,0.999896997,0.998429203,0.994386334,0.9865066,0.974197735,0.957047726,0.93559734,0.910232838,0.882885528,0.853426654,0.819796157,0.78011423,0.733273592,0.678192708,0.618476688,0.557421628,0.499302154,0.446178329,0.40034197,0.361921831,0.33053165,0.304935391,0.284556237,0.267424254,0.25277722,0.239809135,0.227883957,0.216818854,0.206549449,0.197570158,0.189772827,0.182912823,0.177131777,0.171657165,0.166460661,0.161519089,0.15667022,0.152604175,0.149362154,0.147281492,0.146794802,0.148102941,0.150966426,0.155289979,0.16087532,0.167428889,0.174736956,0.182856172,0.191050065,0.199578718,0.208205223,0.216746752,0.225195577,0.233484748,0.241585938,0.249527473,0.256938543,0.263700694,0.269834526,0.274765797,0.278713389,0.281587174,0.283139945,0.283757963,0.283348526,0.281963135,0.280199208,0.2774104,0.274273957,0.270431943,0.266172767,0.261478403,0.25665271,0.251734314,0.247320633,0.243308664,0.239840036,0.236984277,0.234035814,0.23085817,0.226843626,0.221353563,0.214424033,0.206158038,0.197171021,0.187903321,0.179078535,0.171234852,0.164773986,0.16053541,0.157911407,0.156538891,0.155423883,0.152871983,0.147523549,0.13879919,0.12680191,0.112708517,0.097734448,0.082698577,0.068556258,0.056128939,0.045808033,0.03694462,0.029731832,0.023997137,0.0194032,0.015725991,0.012831605,0.010336356,0.008528653,0.007138112,0.005907225,0.004913246,0.004024844,0.003375925,0.002737306,0.002266067,0.00202401,0.001717576,0.001475519,0.001215436,0.001212861,0.001006855,0.000749347,0.000821449,0.000741622,0.000630894,0.000666945,0.000489265,0.000404287,0.000476389,0.000368236,0.000401712,0.000448063,0.000247207,0.000296134,0.000301284,0.000252357,0.000254933,0.000203431,0.000265233,0.00017768,0.000231757,0.000239482,0.000211156,0.00016223,0.000108153,7.73E-05,5.67E-05,3.09E-05,1.03E-05,0,7.73E-06,1.8E-05,3.61E-05,4.64E-05,5.92E-05,7.21E-05,8.76E-05,9.79E-05,0.000105578,0.000103003,0.000115878,0.00016738,0.000159655,0.000144204,8.76E-05,5.92E-05,0.000110728,2.32E-05,7.21E-05,8.5E-05,4.89E-05,7.98E-05,3.09E-05,7.47E-05,0.000141629,9.79E-05\nSRI-1053025-001.txt,CC(C)[C@H](NC(=O)[C@H]1CC[C@H](Cn2cnc3ccccc3c2=O)CC1)C(O)=O,0.912461593,0.931659418,0.952051366,0.971708469,0.988563975,0.998576238,1,0.990952221,0.974647849,0.952923994,0.928628182,0.90162263,0.869381306,0.827311432,0.775780428,0.716212058,0.653382813,0.591747691,0.534567567,0.482209863,0.435225712,0.391961715,0.350534829,0.310807273,0.274708014,0.243431175,0.218170879,0.198743415,0.184740026,0.175237562,0.169625183,0.167315014,0.167296643,0.169547106,0.173754093,0.17901742,0.185635618,0.192442119,0.199193508,0.205706071,0.212126779,0.218813868,0.227108431,0.236748678,0.247661126,0.25891344,0.269968264,0.279190568,0.285018807,0.286598724,0.285142813,0.281996757,0.279167604,0.277803548,0.277583095,0.277831105,0.278161785,0.277486646,0.273674638,0.26504021,0.25082096,0.232220196,0.212126779,0.191877207,0.173818392,0.158212122,0.145191588,0.134821088,0.127651757,0.123430991,0.121189714,0.120170117,0.119384751,0.118599385,0.117524675,0.116762273,0.116215732,0.116913835,0.118682056,0.121910781,0.126182067,0.130852925,0.134770568,0.136736278,0.135877428,0.132244538,0.126177474,0.119352602,0.11271144,0.107742051,0.104494955,0.103254904,0.103750924,0.105537516,0.107149582,0.107512412,0.104793486,0.097587412,0.085898784,0.071436117,0.05621564,0.042074467,0.030289391,0.021471251,0.015390409,0.011008896,0.007899583,0.006076249,0.00493724,0.003945199,0.003233318,0.003141462,0.002943973,0.002617885,0.002406617,0.002052973,0.002071344,0.001855484,0.001827927,0.001736071,0.002025416,0.001630437,0.001621252,0.001612066,0.001511025,0.001327314,0.001180345,0.00135487,0.001391613,0.00110686,0.001267608,0.001217087,0.001083896,0.001001226,0.000955298,0.000955298,0.000923149,0.00094152,0.000835886,0.000822108,0.000854257,0.000711881,0.000500613,0.000753216,0.00057869,0.00049602,0.000514391,0.000514391,0.000491428,0.000468464,0.000431721,0.000385794,0.000344459,0.000298531,0.000257196,0.000215861,0.000206675,0.000206675,0.000206675,0.000215861,0.000220453,0.000225046,0.000234232,0.000243417,0.000234232,0.000206675,0.000101041,0.000316902,0.000234232,9.19E-05,7.81E-05,3.67E-05,0.000215861,0.00016534,7.81E-05,0.000105634,0.000252603,0.000220453,0.000215861,0.000137783,0\nSRI-1052844-001.txt,Cc1[nH]c(=O)[nH]c(=O)c1S(=O)(=O)N1CCCC(C1)C(=O)NC1CCCc2ccccc12,1,0.919672024,0.838637201,0.758662648,0.681969878,0.608912316,0.540297784,0.478499265,0.422607958,0.373431686,0.332081206,0.298607009,0.272554692,0.252561054,0.237464847,0.226407759,0.21938979,0.21540116,0.214391381,0.215855561,0.219288812,0.224842601,0.231961548,0.240898098,0.251298829,0.263466675,0.27673518,0.291801094,0.30827565,0.326411293,0.346006069,0.36708522,0.389164054,0.412358694,0.436174349,0.460595871,0.485633359,0.510327522,0.535264032,0.559609821,0.583112444,0.606190959,0.628123375,0.648788517,0.667893549,0.685105244,0.700383211,0.712954969,0.721835981,0.726910125,0.729278058,0.729071053,0.725971029,0.720659588,0.711324175,0.696965107,0.676931077,0.653145716,0.627270111,0.599693027,0.570293291,0.539712112,0.507651606,0.474853961,0.440693113,0.405381116,0.369337029,0.33288903,0.29736498,0.26280022,0.229305827,0.197906727,0.16873924,0.142631385,0.119340816,0.099392618,0.082049651,0.06766029,0.056148801,0.046419574,0.038760394,0.032600738,0.02759728,0.023734872,0.020745924,0.018287111,0.016348334,0.014742784,0.013833982,0.012915083,0.012087063,0.011607418,0.011041941,0.010834936,0.010395682,0.010400731,0.010218971,0.009693885,0.009724179,0.009295022,0.008966844,0.009057724,0.008623519,0.008164069,0.007952015,0.007532957,0.007396636,0.007017969,0.006351514,0.00591226,0.00568506,0.00522561,0.004968116,0.004417786,0.004109803,0.003751332,0.003089926,0.002862725,0.002585036,0.002165977,0.002160929,0.001777212,0.001348056,0.001388447,0.00110066,0.001141051,0.000934046,0.000848215,0.000893655,0.000762384,0.000610917,0.000631112,0.000545281,0.000363521,0.000287787,0.000267592,0.000353423,0.000171663,0.000257494,0.000297885,0.000292836,0.0002272,0.000156516,0.000307983,0.000242347,0.000333227,0.000363521,0.000383716,0.000348374,0.000307983,0.000302934,0.000287787,0.000267592,0.000267592,0.000262543,0.000252445,0.000247396,0.000232249,0.000207005,0.000191858,0.000171663,0.000146418,0.000126222,0.000111076,8.08E-05,7.57E-05,0.00018176,0.000484694,0.000161565,0.000171663,0.000307983,0.00013632,8.08E-05,0.000161565,0.000146418,0.000176711,0.000328178,0.000191858,0.000212054,0.000131271,0\nSRI-0000393.txt,CC1=CC=C(C=C1)S(=O)(=O)NCCCC(NN)C(O)=O,1,0.974391805,0.98292787,0.944515578,0.923175416,0.906103286,0.893299189,0.812206573,0.80793854,0.778062313,0.739650021,0.701237729,0.63294921,0.607341016,0.577464789,0.521980367,0.470763978,0.440887751,0.385403329,0.342723005,0.30004268,0.265898421,0.227486129,0.197609902,0.167733675,0.146393513,0.124199744,0.113529663,0.09603073,0.087494665,0.08151942,0.08151942,0.070849338,0.073410158,0.075544174,0.061459667,0.069568929,0.085360649,0.071276142,0.076824584,0.072556551,0.075970977,0.081092616,0.098591549,0.098164746,0.103286385,0.09475032,0.075117371,0.08023901,0.091762697,0.099018353,0.107127614,0.113529663,0.120785318,0.091762697,0.075970977,0.075970977,0.071702945,0.079812207,0.089628681,0.073836961,0.058045241,0.036705079,0.045667947,0.052496799,0.035424669,0.022620572,0.037985489,0.024327785,0.027315408,0.03286385,0.031156637,0.024327785,0.031156637,0.040119505,0.031156637,0.023900982,0.039692702,0.01451131,0.018352539,0.011523688,0.027742211,0.022620572,0.020486556,0.026461801,0.040973111,0.020913359,0.018779343,0.029876227,0.026461801,0.03286385,0.026461801,0,0.023474178,0.037131882,0.016645327,0.014938114,0.016218523,0.004694836,0.024754588,0.027315408,0.010670081,0.008109262,0.002134016,0.026034998,0.014938114,0.021766965,0.020913359,0.027742211,0.029449424,0.051216389,0.019632949,0.00128041,0.013230901,0.029022621,0.026461801,0.01579172,0.033290653,0.030729834,0.033717456,0.021766965,0.018779343,0.017498933,0.024327785,0.025608195,0.020486556,0.029876227,0.032010243,0.020913359,0.024754588,0.037985489,0.040546308,0.037131882,0.03158344,0.03286385,0.026461801,0.023900982,0.019206146,0.034997866,0.023900982,0.028169014,0.032437047,0.010243278,0.017925736,0.020913359,0.020486556,0.019206146,0.019632949,0.020486556,0.021766965,0.022193769,0.021340162,0.020913359,0.020486556,0.019632949,0.018779343,0.017925736,0.01707213,0.01579172,0.015364917,0.014938114,0.014084507,0.013657704,0.013657704,0.015364917,0.019632949,0.022193769,0.029022621,0.044814341,0.025608195,0.027742211,0.019206146,0.026888604,0.002987623,0.008109262,0.018779343,0.029876227,0.01707213,0.027742211,0.033717456,0.033717456\nSRI-0000385.txt,OC(=O)C1(CCCCC1)C1(O)CCCCC1,1,0.92816092,0.827586207,0.770114943,0.66954023,0.66954023,0.583333333,0.439655172,0.324712644,0.310344828,0.195402299,0.152298851,0.152298851,0.123563218,0.051724138,0.037356322,0.066091954,0.051724138,0.08045977,0.08045977,0.037356322,0.104885057,0.087643678,0.106321839,0.117816092,0.093390805,0.13362069,0.125,0.083333333,0.099137931,0.130747126,0.125,0.127873563,0.096264368,0.13362069,0.156609195,0.143678161,0.113505747,0.13362069,0.149425287,0.114942529,0.188218391,0.159482759,0.074712644,0.120689655,0.146551724,0.192528736,0.152298851,0.117816092,0.150862069,0.143678161,0.136494253,0.119252874,0.139367816,0.150862069,0.149425287,0.097701149,0.106321839,0.163793103,0.093390805,0.129310345,0.173850575,0.145114943,0.122126437,0.170977011,0.193965517,0.16954023,0.16091954,0.140804598,0.079022989,0.104885057,0.126436782,0.147988506,0.156609195,0.149425287,0.152298851,0.17816092,0.130747126,0.189655172,0.170977011,0.152298851,0.165229885,0.146551724,0.181034483,0.127873563,0.084770115,0.110632184,0.156609195,0.129310345,0.090517241,0.104885057,0.149425287,0.11637931,0.119252874,0.102011494,0.103448276,0.074712644,0.099137931,0.063218391,0.08045977,0.135057471,0.094827586,0.125,0.132183908,0.090517241,0.034482759,0,0.056034483,0.158045977,0.104885057,0.060344828,0.173850575,0.112068966,0.123563218,0.091954023,0.158045977,0.106321839,0.132183908,0.114942529,0.022988506,0.083333333,0.139367816,0.159482759,0.100574713,0.011494253,0.061781609,0.145114943,0.090517241,0.097701149,0.051724138,0.11637931,0.185344828,0.201149425,0.165229885,0.150862069,0.162356322,0.096264368,0.077586207,0.11637931,0.076149425,0.090517241,0.122126437,0.091954023,0.149425287,0.104885057,0.099137931,0.102011494,0.107758621,0.107758621,0.102011494,0.096264368,0.090517241,0.086206897,0.083333333,0.083333333,0.083333333,0.086206897,0.086206897,0.087643678,0.090517241,0.091954023,0.093390805,0.094827586,0.093390805,0.086206897,0.083333333,0.081896552,0.077586207,0.137931034,0.017241379,0.021551724,0.041666667,0.139367816,0.045977011,0.047413793,0.079022989,0.038793103,0.081896552,0.104885057,0.13362069,0.143678161\nSRI-1053013-001.txt,CCn1cc(C(=O)NC(C)Cc2c[nH]c3ccccc23)c(=O)c2ccc(C)nc12,0.99584659,1,0.999376988,0.988785792,0.96801874,0.938529527,0.898033776,0.847985181,0.789214424,0.726373325,0.663490692,0.605426015,0.553653755,0.509087662,0.471665434,0.440826363,0.415116752,0.393269814,0.373167308,0.353376307,0.333107665,0.312112175,0.290078333,0.268314463,0.247672013,0.228462491,0.210478224,0.192597792,0.174011281,0.154947127,0.136464451,0.120264074,0.107596172,0.099089988,0.09436756,0.09289933,0.094074745,0.097015359,0.101480275,0.107216135,0.113776447,0.121113446,0.129152372,0.137874534,0.147165713,0.157038369,0.167415665,0.178420126,0.189871078,0.201936735,0.214355432,0.227008797,0.240085809,0.253268734,0.266621948,0.279632506,0.292252644,0.305090835,0.317974714,0.331462914,0.345100637,0.358802738,0.372085344,0.384325445,0.395323675,0.404650158,0.412180291,0.418400023,0.424113039,0.430573669,0.437158901,0.442554181,0.445193674,0.443989185,0.439574109,0.432916192,0.425003946,0.416223636,0.406868079,0.39646794,0.385010757,0.372764427,0.359452747,0.345534669,0.331375693,0.316757765,0.301932167,0.286934202,0.271718183,0.256009985,0.239564556,0.222219915,0.20473198,0.186645955,0.16838964,0.150388759,0.132786606,0.116085743,0.100346394,0.085817765,0.072724139,0.060986601,0.050731831,0.041831072,0.034296786,0.027856923,0.022625703,0.018129636,0.014622081,0.011693927,0.009332713,0.007521826,0.006078516,0.004903101,0.004047498,0.003150362,0.002651953,0.00218054,0.001842037,0.001509765,0.001229409,0.001129728,0.001069503,0.000874293,0.000745537,0.000691543,0.000623012,0.000577324,0.000508793,0.000431955,0.000483872,0.000450645,0.000257511,0.000348886,0.000265818,0.00020144,0.000226361,0.000265818,0.000267895,0.00017652,0.00019521,0.00016406,0.000124602,0.000184827,0.000122526,0.000116295,0.000128756,9.76E-05,8.72E-05,9.14E-05,8.93E-05,8.72E-05,7.89E-05,7.06E-05,5.81E-05,5.19E-05,4.15E-05,3.32E-05,2.7E-05,2.7E-05,3.32E-05,3.53E-05,3.95E-05,4.15E-05,4.57E-05,4.78E-05,6.85E-05,0.00017029,0.000126679,6.65E-05,0,7.06E-05,8.93E-05,5.61E-05,7.68E-05,1.45E-05,7.06E-05,0.00017029,8.1E-05,7.06E-05,1.87E-05\nSRI-1052765-001.txt,Cc1ccc(cc1)S(=O)(=O)C(CNC(=O)CCN1C(=O)c2ccccc2C1=O)c1cccs1,0.992658709,1,0.994836894,0.977895454,0.947723554,0.89867405,0.835587352,0.769854562,0.707606868,0.653829895,0.612589588,0.584321584,0.565798942,0.551826287,0.537514804,0.521105808,0.50427731,0.489207496,0.477090332,0.46868415,0.46347264,0.459067866,0.449596794,0.428605542,0.395755282,0.35669316,0.319228374,0.287281657,0.262079247,0.242523984,0.227162131,0.214743248,0.204073368,0.194384477,0.185342588,0.176186143,0.167170069,0.158599314,0.149975314,0.141378743,0.13264664,0.123687038,0.114740344,0.106219606,0.098776667,0.09258094,0.087383951,0.082477387,0.077080328,0.071184707,0.065747311,0.061471614,0.058689991,0.057300793,0.056266558,0.054541758,0.051774656,0.048275039,0.045001307,0.042322946,0.040622348,0.039802705,0.039559071,0.039797864,0.040436799,0.041229013,0.042147078,0.04311516,0.044343011,0.04558377,0.046755149,0.048042699,0.04919633,0.050109555,0.050866272,0.051592334,0.052003769,0.052218361,0.052336144,0.05224579,0.051924709,0.051510047,0.050824322,0.049991771,0.048834913,0.047348907,0.045669284,0.043576612,0.041125751,0.038628098,0.035964258,0.033148752,0.030409079,0.027761374,0.025289537,0.022991955,0.020899284,0.019011523,0.017331901,0.016021762,0.01473744,0.013695138,0.012852906,0.012046171,0.011495978,0.011002256,0.010463356,0.010076124,0.009672756,0.009335541,0.009038662,0.00881439,0.008511057,0.008264196,0.008136732,0.008031856,0.007738205,0.007538134,0.007296114,0.00709443,0.006933083,0.006774963,0.006518421,0.006244131,0.006102146,0.005779451,0.005545498,0.005313158,0.00501144,0.004845252,0.004646795,0.004401548,0.004088534,0.003938482,0.003614174,0.003312455,0.003036552,0.002809052,0.002594461,0.002379869,0.002144302,0.001903895,0.001669942,0.001523116,0.001314978,0.001169766,0.001076185,0.001021327,0.00094388,0.000813189,0.000667977,0.000546967,0.000461453,0.000409822,0.000377552,0.000350123,0.000325921,0.000300106,0.000271063,0.000240407,0.000209751,0.000175868,0.000137145,0.000103262,7.58E-05,6.94E-05,9.84E-05,8.07E-05,3.23E-05,4.68E-05,5.65E-05,6.45E-05,0,0.000106489,0.000111329,1.29E-05,8.23E-05,4.52E-05,6.94E-05,7.58E-05,6.13E-05\nSRI-1053232-001.txt,CC(C)C(NS(=O)(=O)c1cc2[nH]c(=O)[nH]c2cc1C)C(O)=O,1,0.946572187,0.884145344,0.811901376,0.730878633,0.644129234,0.553981599,0.466445572,0.385643085,0.314406001,0.255345928,0.208871912,0.17435465,0.149434257,0.132757731,0.122216908,0.116332926,0.11372132,0.113312273,0.114350622,0.116553182,0.119447976,0.123097932,0.12712547,0.131272576,0.135885366,0.140249582,0.144742804,0.149129045,0.153106239,0.156639774,0.1595503,0.161664758,0.162740866,0.162913924,0.161869281,0.159547154,0.156076548,0.15157074,0.145614388,0.138588222,0.130523706,0.121524675,0.111883755,0.101984821,0.092535839,0.083709866,0.076022932,0.069644947,0.064925176,0.061819566,0.06001976,0.059730281,0.060875612,0.063298428,0.066816231,0.070979069,0.075963148,0.081680364,0.087945074,0.094581073,0.101591507,0.108982669,0.116553182,0.124208652,0.131917612,0.139585667,0.146715668,0.153228953,0.158628371,0.162939096,0.165755226,0.167183744,0.16734107,0.166617371,0.165251784,0.162923363,0.159128667,0.153354814,0.145038576,0.133682806,0.119485734,0.103649327,0.087019999,0.07083433,0.056074031,0.043506853,0.033220898,0.024848023,0.018435427,0.013640139,0.010232464,0.007702667,0.005953205,0.004782702,0.003851333,0.003237763,0.002706002,0.002306395,0.002001183,0.001824978,0.001607869,0.001296364,0.000994299,0.000824387,0.00090305,0.00075831,0.000616717,0.000578959,0.00048771,0.000531761,0.000396461,0.000349263,0.000402754,0.000283186,0.000336677,0.000320944,0.000302065,0.000412193,0.000141593,0.000141593,0.000264307,0.000258014,0.000298919,0.000339824,0.000320944,0.000195084,0.000273747,0.000349263,0.000283186,0.000314651,0.000336677,0.000283186,0.00020767,0.000311505,0.00034297,0.000292626,0.000217109,0.00028004,0.000163619,0.000173058,0.000239135,0,0.000125861,0.000188791,0.000151033,0.00014474,0.000122714,8.18E-05,6.29E-05,6.29E-05,6.61E-05,5.66E-05,4.72E-05,3.78E-05,4.09E-05,5.98E-05,7.87E-05,9.12E-05,0.000106981,0.000119568,0.000138447,0.000151033,0.000154179,0.00014474,0.000151033,0.000239135,0.000160472,0.000103835,1.89E-05,5.03E-05,0.00014474,4.09E-05,9.44E-06,0.000138447,0.000217109,0.000261161,0.000138447,0.000157326,7.55E-05,3.15E-06\nSRI-1052947-001.txt,COc1ccc(cc1)C1(CNC(=O)N[C@@H](Cc2ccccc2)C(O)=O)CCOCC1,1,0.990241221,0.981788193,0.97484709,0.966462786,0.952924198,0.933544086,0.906054567,0.867981582,0.820081094,0.760222665,0.690193114,0.60944265,0.52133874,0.432272696,0.347192633,0.270909216,0.206515016,0.154903443,0.115524706,0.086729434,0.066455914,0.053054773,0.044120679,0.038416604,0.035049138,0.033605938,0.033605938,0.034224452,0.035406501,0.036581678,0.038911415,0.041289258,0.043818294,0.046209882,0.049027558,0.051336678,0.054834719,0.059074978,0.063328981,0.066991959,0.070716789,0.073905574,0.077266167,0.081911896,0.087031819,0.092103635,0.096694385,0.100797196,0.104845028,0.108617964,0.111683046,0.114892447,0.118789087,0.122376469,0.125482785,0.12688475,0.125702701,0.121957254,0.117345887,0.112693286,0.10944265,0.108109408,0.104810666,0.098914164,0.087829015,0.073603189,0.057947907,0.044313106,0.033083637,0.024122053,0.017634527,0.013504227,0.010549103,0.008329324,0.006762422,0.005539138,0.004659474,0.003779809,0.003181912,0.002618377,0.001821181,0.001346986,0.001292007,0.001017112,0.000810941,0.000192427,0,0.000103086,5.5E-05,0.000103086,0,0.000109958,0,2.06E-05,0,0,0.000171809,0.000295512,0,0,0,0,0,0,0.000213044,0.000151192,0,0,0,0,0.000281768,0.000240533,0.000103086,6.19E-05,0,7.56E-05,0.00026115,3.44E-05,0,0.00040547,0.000350491,0.000219916,0.00011683,0.000206171,0.000419215,0.00011683,9.62E-05,0.000130575,0.000384853,0.000309257,0.000316129,0.000171809,0.000233661,0.000515428,0.00057728,0.000700983,0.00040547,0.000233661,0.000439832,0.000309257,0.000515428,0.000164937,0.000240533,0.000247406,0.000371109,0.000398598,0.000384853,0.000343619,0.000254278,0.000178682,0.00014432,0.000123703,0.000123703,0.000151192,0.000171809,0.000192427,0.000219916,0.000226789,0.000226789,0.000233661,0.000226789,0.000206171,0.00014432,8.25E-05,2.75E-05,0,0,5.5E-05,0.00014432,0,8.25E-05,0.000199299,0.000185554,0.000419215,0.000316129,0.000343619,0.000206171,0.000281768,0.000323002,0.000377981\nSRI-031110-1.txt,CC1CC(=O)NC2=CC=CC=C2N1S(=O)(=O)C1=CC=C(OC2=CC=CC=C2)C=C1,0.920342639,0.916988108,0.906729408,0.898532155,0.894657446,0.890879185,0.885186456,0.886517968,0.89992466,0.908066165,0.914147169,0.922494945,0.931680835,0.940843309,0.952938664,0.961966865,0.968132035,0.971965945,0.973333288,0.976485075,0.981974447,0.985054337,0.984742305,0.985165791,0.987357414,0.983933486,0.979343106,0.976106521,0.969741308,0.958692709,0.950644486,0.94248854,0.935989908,0.934517894,0.932711684,0.928642527,0.925573019,0.924504829,0.925134448,0.929106863,0.936036077,0.944271174,0.954005017,0.963683692,0.970127657,0.978064611,0.987199469,0.994928419,0.999495688,1.000000002,0.995741418,0.98989778,0.982471631,0.974081997,0.968506559,0.96177054,0.944620763,0.921186378,0.901346451,0.887300911,0.878335422,0.864699735,0.847803378,0.834190846,0.822940373,0.814799451,0.807788627,0.802307882,0.797674259,0.790030326,0.781672712,0.770122075,0.752129799,0.726025073,0.691385738,0.650148315,0.604505476,0.556728859,0.508484763,0.460624241,0.414801902,0.371446591,0.33128752,0.294909094,0.261715423,0.232072772,0.20540402,0.181513825,0.160405296,0.141288307,0.124374969,0.109480953,0.096243501,0.084514859,0.074264841,0.06531145,0.057405093,0.050461527,0.044475398,0.039253018,0.03467668,0.030696645,0.027198496,0.024124674,0.021628013,0.019359289,0.017212384,0.015308836,0.013645442,0.012060231,0.010778378,0.009737692,0.008777738,0.007943559,0.007207204,0.006600108,0.006034198,0.005484772,0.005074127,0.004668103,0.004296472,0.003997516,0.003727054,0.003439922,0.003175646,0.002965535,0.002784658,0.002595617,0.002413085,0.002259656,0.00210536,0.001940933,0.001812285,0.001746559,0.001651443,0.001494882,0.001346065,0.001262478,0.001171611,0.001092864,0.001012217,0.000918499,0.000848207,0.000793262,0.000724859,0.000646552,0.000579944,0.000528839,0.000486134,0.000435628,0.000388798,0.000346976,0.000284514,0.000282968,0.00026995,0.000214105,0.000190979,0.000207694,0.000185327,0.000129278,0.000134012,0.000189942,7.93E-05,6.52E-05,0.000106726,7.04E-05,7.38E-05,8.45E-05,3.03E-05,5.77E-13,6.24E-05,8.02E-05,3.09E-05,6.37E-05,9.7E-05,5.53E-06,2.71E-05,0.00012734,0.00010887,4.99E-05,0.000135759\nSRI-0000384.txt,COC(=O)\\C=C1\\CCC2C3CCC4=CC(=O)C=CC4(C)C3C(=O)CC12C,0.781955739,0.807457992,0.831543453,0.854212122,0.875463999,0.896715877,0.916550962,0.934969256,0.950553966,0.964721884,0.976056218,0.984556969,0.99305772,0.997591454,1,0.999858321,0.998016491,0.992349324,0.984556969,0.974214389,0.958913037,0.944178402,0.926326826,0.906208382,0.884956504,0.862429515,0.838344054,0.81298348,0.786914511,0.760137145,0.733643138,0.705874019,0.679096654,0.652475135,0.626618685,0.601456462,0.575727523,0.552378793,0.528902553,0.505808846,0.483239353,0.461165736,0.439233799,0.417528548,0.396049984,0.374883115,0.35422629,0.333087756,0.312218413,0.291334901,0.271343969,0.251282197,0.231390439,0.212107903,0.193392083,0.175540506,0.159304072,0.142203395,0.127015386,0.112479102,0.098778725,0.086707659,0.075047463,0.065526622,0.056671673,0.048397608,0.041823694,0.035901505,0.030503528,0.026394832,0.023391233,0.019693406,0.016817319,0.014394605,0.012850302,0.01150435,0.010441756,0.01007339,0.0090533,0.008472415,0.008019042,0.00721147,0.007112295,0.006573914,0.007253974,0.007395653,0.006616418,0.006970616,0.006984784,0.006573914,0.006857272,0.00735315,0.007523165,0.007480661,0.007806523,0.00769318,0.007537332,0.008089881,0.007834859,0.008245728,0.007764019,0.007452325,0.007523165,0.008004874,0.008387408,0.007934034,0.0075515,0.007834859,0.008769941,0.008727438,0.00803321,0.008514919,0.008429911,0.007749851,0.00728231,0.007523165,0.007749851,0.006729761,0.00626222,0.006658922,0.007112295,0.007324814,0.005525488,0.006333059,0.005865518,0.005695503,0.005596328,0.005100451,0.005667167,0.005043779,0.004732085,0.003938681,0.004292879,0.003556147,0.003187782,0.003145278,0.003088606,0.002578561,0.002691904,0.002564393,0.001855997,0.001586807,0.001175937,0.001530135,0.001473463,0.001345952,0.001374288,0.001501799,0.001459296,0.001303448,0.001147601,0.001005922,0.000920915,0.000878411,0.000850075,0.000850075,0.000864243,0.000892579,0.000906747,0.000949251,0.000977586,0.00102009,0.001076762,0.001147601,0.001175937,0.000949251,0.000538381,0.000255023,0.001133433,0.000906747,0.00041087,0.001048426,0,0.000637556,0.001133433,0.000226687,0.000977586,0.001218441,0.000538381,0.00068006,0.001133433\nSRI-0000362.txt,CC(O)(C1=NC2=C(O1)C=CC=C2)C1=CC=CC=C1,0.815566581,0.798860656,0.792178286,0.792178286,0.800531248,0.815566581,0.835613692,0.860672581,0.885731469,0.91246095,0.936183364,0.956898712,0.976611704,0.989475267,0.996992933,1,0.995322341,0.985298785,0.969261097,0.945872801,0.918475083,0.884896173,0.846806662,0.803705374,0.758098197,0.708982776,0.65869794,0.60707663,0.555956498,0.506674017,0.459563307,0.417430963,0.380109925,0.347366311,0.320519888,0.298785479,0.284535325,0.275848243,0.271939057,0.268998814,0.268714813,0.272072704,0.281695317,0.295628059,0.310329274,0.323192836,0.330510032,0.334118512,0.33851217,0.3479009,0.36504118,0.386057235,0.402061511,0.402295394,0.38029369,0.34265524,0.308424798,0.293523113,0.303730433,0.324395663,0.326701081,0.295427588,0.236505789,0.170968443,0.11460265,0.073589602,0.047261063,0.03177467,0.022736765,0.017674869,0.013865918,0.011376735,0.009772966,0.007150136,0.006615547,0.005964015,0.005162131,0.005713427,0.005279072,0.004376953,0.00405954,0.003224244,0.003357891,0.002906831,0.00262283,0.002723066,0.002739772,0.002322124,0.002472477,0.002405653,0.00188777,0.001754122,0.001988005,0.001737416,0.002221888,0.002439065,0.002004711,0.001470121,0.001921181,0.002088241,0.001119297,0.002038123,0.001102591,0.001002356,0.00090212,0.001470121,0.001470121,0.001202827,0.00135318,0.001837652,0.00172071,0.000852002,0.00126965,0.001770828,0.00143671,0.000868708,0.001369886,0.001336474,0.001653887,0.001019061,0.001553651,0.001871064,0.001971299,0.00172071,0.002238594,0.002054829,0.00135318,0.001770828,0.002104947,0.001503533,0.001704004,0.001737416,0.001303062,0.001637181,0.001085885,0.001119297,0.001988005,0.001369886,0.00036753,0.001303062,0.001403298,0.00053459,0.000768473,0.000801884,0.000868708,0.000918826,0.00098565,0.001019061,0.000918826,0.00081859,0.000751767,0.000701649,0.000718355,0.000751767,0.000768473,0.000785179,0.000801884,0.000835296,0.000885414,0.00090212,0.000918826,0.000952238,0.001002356,0.001035767,0.001069179,0.000968944,0.000835296,0.000417648,0,0.000968944,0.000968944,0.00081859,0.000250589,0.000885414,0.000918826,0.000718355,0.00090212,0.001303062,0.000885414,0.000467766,0.000434354\nSRI-1052920-001.txt,OC(=O)[C@H](Cc1ccccc1)NC(=O)N1CCN(CC1)C(=O)c1c[nH]c2ccccc12,0.991179065,1,0.996079584,0.995099481,0.980397922,0.958835637,0.914730961,0.861805351,0.802999118,0.738312261,0.679506028,0.614819171,0.555032833,0.505047535,0.475644418,0.448201509,0.427619328,0.409977458,0.395275899,0.378614133,0.361952367,0.341370185,0.325688523,0.305106341,0.286484367,0.261001666,0.240419484,0.217877095,0.197294913,0.175732628,0.159854945,0.141428991,0.130647849,0.114770166,0.107223366,0.10065667,0.093403901,0.089091444,0.087523277,0.090365579,0.091737724,0.092325787,0.09575615,0.099676566,0.107811428,0.113496031,0.119082623,0.123591101,0.131921984,0.144075272,0.15113202,0.160835049,0.167303734,0.181025189,0.18886602,0.197882976,0.207095952,0.219543272,0.228070175,0.240811526,0.255709105,0.26707831,0.278643536,0.294521219,0.307556601,0.31490738,0.321376066,0.326962658,0.331765167,0.338233853,0.343428403,0.34519259,0.344310497,0.345290601,0.341272175,0.332647261,0.327158679,0.316475546,0.306870528,0.298343624,0.284818191,0.266588258,0.253356856,0.238459277,0.220523375,0.203077526,0.184945604,0.171910222,0.155248456,0.140644908,0.127217485,0.120258747,0.114476134,0.10585122,0.094580025,0.090855631,0.085857101,0.084288935,0.081250613,0.078800353,0.076938155,0.073213761,0.07056748,0.07046947,0.075271979,0.070763501,0.062530628,0.065176909,0.062726649,0.059590317,0.060962462,0.054787808,0.056748015,0.054885818,0.053317652,0.049789278,0.04782907,0.048711163,0.046456924,0.043908654,0.042438498,0.039498187,0.040772322,0.038616093,0.036557875,0.035773792,0.037439969,0.037537979,0.029109086,0.032441439,0.027932961,0.029501127,0.021562286,0.018719984,0.026266784,0.023228462,0.02528668,0.0150936,0.016857787,0.021268254,0.013133392,0.011369205,0.012447319,0.014701558,0.013427423,0.013623444,0.013133392,0.012839361,0.012055278,0.010291091,0.008526904,0.007252769,0.006174655,0.005586592,0.005684603,0.005684603,0.005880623,0.006076644,0.006076644,0.006174655,0.006272665,0.006076644,0.005880623,0.005292561,0.003822405,0.002646281,0.003430364,0.002646281,0.00254827,0.002646281,0.005586592,0.003038322,0.003234343,0.001372145,0.006762717,0,0.001862197,0.003626384,0.006566696,0.003822405,0.010487112\nSRI-1052952-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)CCn1c2ccccc2sc1=O,1,0.959864263,0.913929651,0.862921023,0.80834179,0.749091241,0.685921082,0.619958871,0.553701347,0.488490843,0.427790575,0.373399269,0.325853858,0.286335594,0.253985385,0.227809904,0.2074333,0.191513238,0.178841621,0.169069442,0.161659767,0.155941431,0.151511735,0.148290137,0.146035019,0.14442422,0.143081888,0.141793249,0.140531456,0.139073683,0.137454831,0.13569906,0.133717777,0.131425074,0.128799472,0.125881241,0.12249051,0.11892796,0.115295608,0.111657888,0.10859737,0.106095263,0.104548896,0.103719334,0.103901892,0.104701922,0.106310036,0.108366489,0.11079611,0.113784142,0.116989632,0.120452849,0.124128155,0.127800776,0.130968681,0.133664084,0.135908464,0.138182375,0.141310009,0.145119548,0.149084798,0.15271178,0.15474944,0.154744071,0.152408413,0.147887437,0.142856376,0.138813271,0.136872258,0.136662854,0.136287001,0.132047916,0.122573734,0.108248364,0.091313499,0.074977315,0.060426432,0.048442089,0.03882562,0.031171641,0.024902949,0.020145724,0.016043556,0.012848805,0.010255419,0.00824729,0.00664723,0.005423023,0.004338418,0.003575973,0.002931654,0.002496738,0.002134308,0.001868527,0.00160006,0.001455088,0.001339648,0.001366494,0.001304747,0.001095343,0.00116246,0.001119505,0.001047019,0.001033596,0.001028227,0.001060443,0.001084605,0.000915471,0.000851039,0.000936948,0.000810769,0.000872516,0.000896678,0.000749021,0.000577203,0.000749021,0.000700697,0.00064432,0.000765129,0.000475186,0.000512771,0.000612104,0.000633581,0.000461762,0.000547672,0.000413438,0.000319475,0.000467132,0.000330214,0.000383907,0.000335583,0.000375853,0.000182557,0.000169134,0.000381222,0.000220143,0.000330214,0.000289944,0.000273836,0.000265782,0.000153026,0.000179873,0.000169134,0.000230881,0.000222827,0.00024162,0.00023625,0.000225512,0.000195981,0.000158395,0.00012081,9.66E-05,8.32E-05,8.05E-05,9.13E-05,9.93E-05,0.000102017,0.000110071,0.000115441,0.000123495,0.000128864,0.000128864,0.000128864,0.00012081,0.000104702,8.59E-05,4.03E-05,4.56E-05,5.64E-05,6.71E-05,0.000174503,0.000142287,0.000136918,6.71E-05,0.000118125,0,0.00016108,2.68E-05,4.3E-05,0.000102017,0.000187927\nSRI-0000028.txt,OC(C(=O)NC1=CC(=CC=C1O)[N+]([O-])=O)C1=CC=CC=C1,0.720061372,0.702945725,0.693776629,0.689497717,0.69010899,0.694387902,0.701539797,0.710464384,0.720183626,0.728374686,0.735954472,0.741883821,0.74555146,0.74805768,0.748913462,0.74805768,0.746101606,0.742739604,0.73760491,0.730942033,0.723912392,0.717005006,0.711564676,0.708569438,0.709180711,0.714070895,0.723301119,0.736443491,0.754598302,0.775687224,0.80014426,0.826221171,0.854211366,0.882403281,0.908975323,0.934049745,0.956538483,0.974778872,0.988777026,0.997585471,1,0.995280972,0.985995733,0.972437696,0.954331787,0.931647442,0.901364973,0.864254583,0.820603571,0.772178516,0.72007971,0.666061506,0.611315888,0.557829491,0.508945982,0.46549669,0.429278759,0.399858185,0.37730832,0.36036383,0.348431779,0.340784752,0.335662284,0.333327221,0.332691497,0.333492264,0.334788163,0.337037648,0.339708912,0.34250243,0.345888883,0.349104179,0.352619,0.355657027,0.358591138,0.36161694,0.364129272,0.366647717,0.36871382,0.370174763,0.371910779,0.372870477,0.373493976,0.373946318,0.373573441,0.373396172,0.373151663,0.372295881,0.371629593,0.3708166,0.370009719,0.369135599,0.368505987,0.36757074,0.366843325,0.366268728,0.36566968,0.36533348,0.365217338,0.365431284,0.366109797,0.366299292,0.367197863,0.367619641,0.36898278,0.369881352,0.370779923,0.372283655,0.373206678,0.3741297,0.375064948,0.376159127,0.3767704,0.377271644,0.377186065,0.377546717,0.377179953,0.376354734,0.37565177,0.374423111,0.373121099,0.370920516,0.368671031,0.366397095,0.363352955,0.359801458,0.355791507,0.351891585,0.347264247,0.34310759,0.338516929,0.333406686,0.328113061,0.322440447,0.316297152,0.309884897,0.303252584,0.2963941,0.289168852,0.282353157,0.2748834,0.266985751,0.259033088,0.251153778,0.242724322,0.234979492,0.229618627,0.226415556,0.221054691,0.209850055,0.196842163,0.18492845,0.175539296,0.168760277,0.163570568,0.158979907,0.154230315,0.149083396,0.143251851,0.136809032,0.129375951,0.120970946,0.111160013,0.099875912,0.087772704,0.077301596,0.069245017,0.0625149,0.056237125,0.05040558,0.044610711,0.038919758,0.033846191,0.029017134,0.024065822,0.019475161,0.015507999,0.011174072,0.007225248,0.00351482,0\nSRI-0000570.txt,[O-][N+](=O)C1=CC=C(O1)C(=O)NC1=NN=CS1,0.603763437,0.604605805,0.60395783,0.602856273,0.600717956,0.597478082,0.593655031,0.58905441,0.585166562,0.581473106,0.578686814,0.576807688,0.575382143,0.574604573,0.573567814,0.573503016,0.572401459,0.571494295,0.570651927,0.569939155,0.568902396,0.567476851,0.564755357,0.562163458,0.558761591,0.554698789,0.55057119,0.546540787,0.54260758,0.539153875,0.535706649,0.532525093,0.529434253,0.525805595,0.521613198,0.516967219,0.51181582,0.506450589,0.501104797,0.49538318,0.489395893,0.483479884,0.477239887,0.470377834,0.463178835,0.455992795,0.449383452,0.443175854,0.438341962,0.434693864,0.432847136,0.432905454,0.434350438,0.437208006,0.44147816,0.447154419,0.453860958,0.461409863,0.470099205,0.479961381,0.490581687,0.501778691,0.513740305,0.526660921,0.540145276,0.554342403,0.568902396,0.583753977,0.599758953,0.615912964,0.632909342,0.64965301,0.666921537,0.684656606,0.703104447,0.720800638,0.739352155,0.757793516,0.776202479,0.794540165,0.81263162,0.830159337,0.847570419,0.864139133,0.88037738,0.895656625,0.911136742,0.925152436,0.938306324,0.950170741,0.961328867,0.970685622,0.979536957,0.986865552,0.992250222,0.99589832,0.998879004,1,0.999261309,0.996455578,0.992477013,0.986852592,0.978895462,0.970465311,0.959423821,0.947332612,0.933861217,0.917985835,0.901002417,0.882301866,0.863173651,0.841751605,0.819195604,0.796166581,0.771744413,0.747192649,0.721319017,0.694790931,0.669014495,0.642583605,0.615310348,0.588970174,0.561910748,0.535648331,0.509405354,0.483369728,0.458033915,0.433203522,0.41015506,0.388272953,0.36781639,0.347930045,0.328147375,0.30902564,0.2910573,0.273717496,0.256798875,0.240968852,0.226097831,0.211388804,0.197748936,0.185139347,0.172847266,0.160976368,0.150064473,0.140273575,0.133754949,0.130158689,0.125033209,0.114918323,0.103125182,0.092420639,0.084547746,0.079143637,0.075301146,0.072041833,0.068763081,0.065328815,0.061635359,0.057598476,0.053166329,0.048073247,0.042267393,0.035956119,0.029683724,0.024765595,0.021409086,0.018791268,0.016555755,0.014611831,0.012402237,0.010497191,0.009078126,0.007471149,0.006103922,0.004704297,0.003829531,0.003032522,0.001853208,0.000816448,0\nSRI-1052760-001.txt,OC(=O)C[C@H](NC(=O)C(Cc1cc(=O)[nH]c2ccccc12)NC(=O)c1ccc(Cl)cc1)C(O)=O,0.853638754,0.872317939,0.892748298,0.913209379,0.933516848,0.952595424,0.969523435,0.984116548,0.994469978,1,0.999139774,0.989032123,0.966789146,0.932134343,0.889399563,0.843162435,0.799198761,0.761072333,0.729796987,0.704358886,0.683805638,0.666017401,0.650072505,0.634742055,0.620579055,0.607030501,0.593727726,0.578461794,0.55982562,0.53547509,0.50540406,0.472177846,0.438558385,0.40648733,0.377393271,0.351134883,0.327417234,0.30664893,0.288295401,0.271935753,0.257551552,0.244933886,0.233916853,0.224405215,0.216248433,0.209397351,0.203753656,0.199467889,0.196097648,0.193919434,0.19245705,0.191369479,0.19009143,0.188392484,0.185894758,0.182825595,0.178930002,0.174505985,0.169931428,0.165356871,0.160647135,0.15567626,0.150266055,0.14416767,0.137046231,0.129079927,0.120391648,0.111202595,0.102056554,0.092870573,0.084351267,0.076652248,0.070071522,0.064572222,0.060575245,0.057764151,0.056197311,0.055816354,0.05641544,0.057702706,0.059813331,0.062437019,0.065281908,0.068606066,0.072065402,0.075558532,0.079371175,0.08336508,0.087601691,0.091964264,0.09660641,0.101580357,0.106397621,0.111205668,0.115964559,0.120167375,0.123937007,0.127396343,0.130244304,0.132763536,0.135205963,0.137709834,0.140225994,0.143009438,0.146121611,0.149316735,0.152201563,0.154763807,0.156484258,0.157316833,0.156730037,0.154597906,0.151402782,0.147279844,0.142477941,0.137528572,0.132612997,0.128364097,0.124818738,0.12161747,0.11901836,0.116815568,0.114244107,0.111282474,0.107279352,0.102013542,0.095469683,0.087841325,0.079275936,0.070071522,0.060830241,0.051837811,0.043017426,0.035149433,0.028074078,0.022135449,0.017419569,0.013622287,0.010565414,0.008046182,0.006212058,0.004829552,0.003702042,0.003041512,0.002454715,0.002098336,0.001907858,0.001843341,0.001729668,0.001453167,0.001149016,0.000890948,0.000706614,0.000592941,0.000525352,0.000476196,0.00043933,0.00039939,0.000368668,0.000341018,0.00031644,0.000285718,0.000258068,0.000239634,0.000227345,0.000248851,0.000211984,0.00026114,0.000162828,8.91E-05,7.99E-05,0.000199695,0.000224273,0.000267284,9.52E-05,5.22E-05,0.000107528,0.000104456,9.22E-06,0,2.46E-05\nSRI-0000613.txt,CCCCCCCCCCCCCCC\\C=C/C1OC(O)C(O)C1NC(C)=O,1,0.917803715,0.868485944,0.802728917,0.736971889,0.671214861,0.62189709,0.589018576,0.556140062,0.506822292,0.473943778,0.424626007,0.391747493,0.358868979,0.325990465,0.293111951,0.260233437,0.243794181,0.227354924,0.204339964,0.191188558,0.187900707,0.176393227,0.164885747,0.153378267,0.143514713,0.13693901,0.130363308,0.118855828,0.110636199,0.100772645,0.094196942,0.077757685,0.071181983,0.066250205,0.054742726,0.044879171,0.046851882,0.041262535,0.03518001,0.038303469,0.043728423,0.049317771,0.05441394,0.063291139,0.069702449,0.077264508,0.07611376,0.081045537,0.081209929,0.084662173,0.082196285,0.084168996,0.08318264,0.082360677,0.076278152,0.077100115,0.074469834,0.077100115,0.078744041,0.070853197,0.078250863,0.081538714,0.075784975,0.07167516,0.070195627,0.069373664,0.065757028,0.06016768,0.055071511,0.051126089,0.055071511,0.055071511,0.054578333,0.051948052,0.04027618,0.031892158,0.034686832,0.042577675,0.03649515,0.034686832,0.026138419,0.031234588,0.027617952,0.02367253,0.021042249,0.029919448,0.024165708,0.023508137,0.019233931,0.020549071,0.007890843,0.01150748,0.016439257,0.010027947,0.009205984,0.009041591,0.009370376,0.010685517,0.009863554,0.003616637,0.004438599,0.008384021,0,0.006082525,0.008877199,0.011343087,0.00641131,0.00706888,0.006246918,0.009863554,0.012329443,0.004931777,0.001972711,0.001972711,0.009699162,0.001315141,0.006082525,0.007397666,0.008219628,0.005260562,0.010356732,0.011178695,0.004602992,0.012987013,0.017096827,0.012987013,0.021699819,0.018411968,0.011836265,0.01282262,0.015288509,0.013151406,0.013480191,0.015781687,0.01150748,0.020549071,0.022686175,0.004931777,0.007233273,0.008712806,0.011671872,0.014137761,0.00509617,0.008219628,0.019727108,0.01791879,0.003123459,0.004767385,0.005424955,0.00509617,0.004438599,0.003781029,0.003123459,0.002465889,0.002137103,0.002794674,0.004602992,0.005424955,0.006246918,0.006575703,0.006740095,0.006740095,0.006904488,0.007397666,0.01084991,0.009041591,0.002301496,0.008712806,0.011014302,0.008877199,0.013151406,0.006740095,0.01216505,0.012000658,0.014466546,0.015452902,0.016110472,0.015124116,0.01726122,0.01791879\nSRI-1052823-001.txt,COC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)CSCc1nc2ccccc2c(=O)[nH]1,0.976250206,0.988890028,0.99631648,1,0.995321335,0.983661805,0.962303329,0.933236195,0.904154209,0.867526947,0.827379547,0.789445229,0.750263268,0.709521751,0.666121565,0.620760795,0.574657381,0.528969847,0.48515378,0.443966676,0.406477946,0.372509354,0.341748989,0.314018617,0.289719265,0.268628141,0.251309655,0.23716969,0.226401334,0.21852781,0.213428808,0.210880049,0.210566653,0.212102443,0.215335921,0.219967056,0.225688395,0.232127129,0.239029274,0.246472064,0.254119824,0.26184779,0.270082241,0.278600381,0.287498756,0.296373366,0.30478011,0.312445694,0.318992854,0.324044327,0.327549612,0.329874092,0.33117075,0.331695058,0.331550985,0.33076081,0.329367608,0.327528818,0.325436044,0.32273133,0.318845811,0.313228442,0.305540579,0.295739147,0.284130117,0.270793695,0.256876523,0.244315422,0.234718961,0.228495594,0.22422984,0.219375911,0.210939461,0.198780874,0.184452277,0.170062783,0.157047183,0.145932755,0.137187365,0.13069219,0.126206613,0.123488531,0.122246829,0.121462595,0.12041398,0.118607867,0.115404096,0.111038827,0.105795752,0.100607632,0.095894806,0.092266241,0.089931365,0.088818882,0.088780265,0.088982264,0.088753529,0.087272695,0.083684233,0.077723763,0.069660121,0.060099307,0.049957743,0.040156312,0.031378246,0.023911691,0.017934882,0.013268099,0.009828167,0.007280894,0.005458442,0.004207828,0.003330021,0.002652729,0.002186348,0.001822451,0.001540246,0.001332306,0.001085747,0.000937218,0.000805027,0.000799086,0.000644616,0.000638675,0.000562925,0.000455984,0.000497572,0.00048569,0.000392117,0.000353499,0.000386176,0.000354984,0.000319337,0.000279235,0.00030597,0.000297058,0.000243588,0.000242102,0.000252499,0.000197544,0.000216852,0.000218338,0.000139617,0.000197544,0.000215367,0.00020497,0.000209426,0.000209426,0.000191602,0.00015447,0.000117338,8.91E-05,7.43E-05,6.54E-05,6.09E-05,5.79E-05,5.5E-05,5.35E-05,5.35E-05,5.5E-05,5.64E-05,5.64E-05,5.94E-05,6.68E-05,6.98E-05,5.64E-05,1.19E-05,7.87E-05,5.64E-05,6.09E-05,6.24E-05,7.28E-05,2.38E-05,5.2E-05,2.82E-05,2.08E-05,4.46E-05,3.56E-05,1.19E-05,1.49E-06,0\nSRI-0000605.txt,CCOC(=O)OCC(=O)[C@@]1(O)C(C)CC2C3CCC4=CC(=O)C=CC4(C)[C@@]3(Br)C(O)CC12C,0.590344535,0.603401283,0.618090124,0.631146872,0.6490999,0.665420835,0.683373864,0.702958985,0.724176201,0.745393416,0.769874818,0.794356221,0.82210181,0.847888887,0.872696708,0.896198854,0.918721744,0.938959704,0.956749523,0.971927992,0.983842274,0.992981998,0.998367907,1,0.997878278,0.99249237,0.984331903,0.97241762,0.957075941,0.938959704,0.917579279,0.89228183,0.865107473,0.835844037,0.804736335,0.772502489,0.739664768,0.706924973,0.674315745,0.642914266,0.613683472,0.584811738,0.558681921,0.534788073,0.51221622,0.492321,0.473258148,0.456137488,0.440746846,0.424703367,0.409524898,0.395097191,0.381224397,0.366356025,0.35125916,0.336815133,0.320445235,0.304401756,0.287950254,0.270960161,0.254133277,0.237290072,0.219908276,0.203522058,0.188164058,0.172251147,0.157611268,0.143787436,0.129898321,0.117053745,0.106102398,0.09531426,0.08589708,0.077655008,0.06947822,0.06355372,0.056992705,0.051998498,0.047722414,0.04382171,0.039659872,0.036934276,0.035285861,0.032511302,0.030356939,0.028871734,0.027957761,0.027288603,0.024889426,0.023844886,0.023420542,0.022637137,0.021723164,0.021233536,0.020711266,0.019797294,0.018752754,0.018214163,0.01762661,0.017822461,0.017316512,0.016174046,0.015700739,0.015227432,0.014558274,0.014509311,0.014003362,0.013056748,0.012860897,0.013252599,0.012061171,0.011897962,0.011914282,0.010216905,0.010869743,0.011147199,0.010282189,0.009890487,0.010004733,0.009710956,0.010021054,0.009515105,0.008437923,0.008062542,0.009090761,0.008699058,0.007703481,0.007197532,0.007344421,0.007132249,0.006773188,0.006055067,0.006071388,0.006218276,0.005500155,0.00505949,0.004602504,0.004733071,0.003819099,0.003868062,0.003231545,0.003933345,0.004112876,0.003443717,0.003411075,0.003345792,0.003231545,0.00314994,0.003003052,0.002823522,0.002595029,0.002415498,0.002284931,0.002203326,0.002187005,0.002138042,0.002105401,0.002040117,0.001974833,0.001909549,0.001827945,0.001730019,0.001599452,0.001436242,0.001305675,0.001387279,0.001599452,0.00104454,0.000767084,0.001240391,0.00088133,0.001142465,0.000228493,0.00104454,0.000995577,0.000816047,0.000473307,0.000408023,6.53E-05,0,1.63E-05\nSRI-1052756-001.txt,C[C@H](NC(=O)C1CCN(CC1)C(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)OC(C)(C)C)C(O)=O,1,0.992011317,0.974981782,0.947508505,0.908539318,0.855852977,0.789410513,0.711355231,0.626168588,0.538098226,0.453613028,0.377817959,0.312544571,0.257792863,0.214225312,0.179425828,0.15249812,0.13141579,0.114892854,0.101487454,0.090770927,0.082314614,0.075339129,0.06957169,0.065012295,0.061466099,0.058894132,0.056945673,0.055737628,0.055164781,0.055223235,0.055819464,0.056988539,0.05849275,0.060639952,0.063052145,0.065943658,0.06911575,0.072490482,0.076075647,0.07989073,0.083974701,0.088206755,0.092458293,0.096702038,0.101140628,0.105633775,0.109881417,0.113996563,0.11822472,0.121981349,0.125640556,0.129003597,0.131891214,0.134104663,0.135710194,0.136844197,0.137830118,0.139162864,0.140959343,0.142993535,0.14441591,0.144934201,0.144306797,0.142081656,0.137904159,0.132273112,0.126774559,0.123216673,0.121692977,0.121498131,0.119709446,0.113922521,0.103556718,0.090583875,0.077022598,0.064981119,0.054295768,0.045360134,0.037644235,0.031206525,0.025805396,0.021304455,0.017388051,0.014040598,0.011390693,0.009344811,0.007583404,0.006246761,0.004988056,0.004138528,0.003515021,0.003062978,0.002743431,0.002439471,0.002127718,0.002006913,0.001683469,0.001625015,0.001726335,0.001597737,0.001379509,0.001324952,0.000966436,0.00082225,0.000802765,0.000876807,0.000861219,0.000943054,0.000783281,0.000927467,0.000857322,0.000954745,0.000907982,0.000541672,0.000654682,0.000943054,0.000837838,0.000884601,0.000685858,0.000674167,0.000775487,0.000666373,0.000744311,0.000717033,0.000635198,0.000646889,0.000522187,0.000510496,0.000459836,0.000732621,0.00041697,0.000487115,0.000666373,0.000576744,0.000502703,0.000491012,0.000455939,0.000553362,0.00046763,0.000342929,0.000378001,0.000335135,0.000323444,0.000409176,0.000409176,0.000413073,0.000432558,0.000452043,0.000420867,0.00036631,0.000323444,0.000300063,0.000288372,0.000272784,0.000249403,0.000229918,0.000214331,0.000198743,0.000190949,0.000183155,0.000163671,0.000155877,0.000140289,0.000132495,0.000171464,0.000124701,0.000183155,0.000128598,0.000128598,0.000116908,0.000241609,0.00015198,0.000194846,0.000327341,0,8.57E-05,0.000163671,0.000144186,0.000120804,0.000183155\nSRI-1052990-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)CCc1nc(no1)-c1ccco1,0.999722441,1,0.991222196,0.970301186,0.936300208,0.888351889,0.826976654,0.755262345,0.677649908,0.59889254,0.52474959,0.459315054,0.404254286,0.35974076,0.325982646,0.301175809,0.284452879,0.273766857,0.268215677,0.266376849,0.267938118,0.271476996,0.277826158,0.285354946,0.294340919,0.304575907,0.315955826,0.327960254,0.340832053,0.353977941,0.367453431,0.380974024,0.394567476,0.40761275,0.420127191,0.431965083,0.443053565,0.452851398,0.461414094,0.467846524,0.472637886,0.476138599,0.477422309,0.476853314,0.474816724,0.470563133,0.464096008,0.455946181,0.445624456,0.433030216,0.418798378,0.402693016,0.38458923,0.365545213,0.345231363,0.324768325,0.304100587,0.284529208,0.266512159,0.250875178,0.236861918,0.224295434,0.212814899,0.201754173,0.190589362,0.178564118,0.166788677,0.15647389,0.148868774,0.144577017,0.141669587,0.13724946,0.128534107,0.11537434,0.100174515,0.085116939,0.071169599,0.059172111,0.049186926,0.040821991,0.033754645,0.027721206,0.022655754,0.018377876,0.014863285,0.012198718,0.00974926,0.007768183,0.006383857,0.005259743,0.004253592,0.003570103,0.002921309,0.002470275,0.002112918,0.001949852,0.0015578,0.001366978,0.001183095,0.001203912,0.001079011,0.001009621,0.000961048,0.000898597,0.00095064,0.000725123,0.000589813,0.000669611,0.000652264,0.000555118,0.00054124,0.000454503,0.000419808,0.000287967,0.000256742,0.000298376,0.000426747,0.000430216,0.000346949,0.000402461,0.000385113,0.000388583,0.000301845,0.000437155,0.000385113,0.000319193,0.000218578,0.000239395,0.000388583,0.000294906,0.000305315,0.000360827,0.00027062,0.000381644,0.000291437,0.000145718,0.000277559,0.000346949,0.000232456,0.000222047,0.000284498,0.0002047,0.000319193,0.000190822,0.000145718,0.000173474,0.0002047,0.00020123,0.0002047,0.000190822,0.000163066,0.000142249,0.000117963,9.71E-05,7.98E-05,6.59E-05,6.94E-05,6.94E-05,6.94E-05,7.63E-05,7.98E-05,8.67E-05,0.000100615,0.000131841,0.000166535,0.000183883,0.000170005,0.000218578,0.000149188,0.000180413,3.82E-05,0.000225517,0.000277559,0.000149188,0.000284498,0.000228986,0.000111024,0.000232456,0,2.08E-05,0.000117963\nSRI-0000215.txt,CCCCCCCCCCCCSCC1=NC2=CC=CC=C2N1,1,0.954276722,0.907490111,0.858576836,0.807536898,0.756496959,0.706520352,0.662923738,0.62251712,0.588490494,0.56084386,0.540640551,0.525753902,0.51405725,0.503423929,0.493109608,0.483007954,0.472906299,0.461422313,0.448662328,0.434094679,0.41920803,0.404108715,0.389115733,0.375824082,0.362851431,0.351899111,0.342222789,0.334247799,0.327548807,0.322232147,0.318297818,0.315426821,0.31426779,0.314639956,0.31628812,0.319701416,0.32534771,0.332642167,0.34152099,0.352845477,0.367551359,0.385128238,0.405044447,0.427044788,0.450246693,0.472895666,0.495736038,0.51911871,0.546456978,0.576038875,0.604621241,0.627536047,0.640370465,0.645272426,0.647005657,0.650918719,0.655363447,0.654289482,0.643103228,0.622963719,0.598326315,0.56961635,0.534802858,0.492886309,0.442346136,0.38571307,0.327708307,0.271745141,0.220854068,0.17782102,0.143411595,0.116169027,0.09484922,0.07810174,0.064629322,0.053645102,0.044915146,0.037737655,0.031655395,0.027019268,0.023116839,0.019639743,0.016832546,0.014386883,0.012876951,0.010941687,0.009123389,0.008251457,0.007655991,0.006475692,0.005550593,0.005008294,0.004423461,0.004327761,0.003806729,0.003742929,0.003477096,0.003158096,0.003062396,0.002828463,0.002605164,0.002583897,0.00249883,0.001765131,0.001818298,0.001690698,0.001882098,0.001807664,0.001680065,0.001754498,0.001148399,0.001860831,0.001531198,0.001361065,0.001765131,0.001361065,0.001116499,0.001541831,0.001626898,0.001743865,0.001254732,0.001297265,0.001552465,0.001775765,0.001765131,0.001743865,0.001467398,0.0002552,0.001073965,0.001509932,0.001275998,0.001903364,0.001222832,0.000946366,0.000595466,0.000925099,0.001201565,0.001105865,0.001233465,0.000616733,0.000404066,0.000754966,0.001169665,0.000744332,0.000914466,0.000956999,0.000744332,0.000446599,0.0002552,8.51E-05,0,0,4.25E-05,0.000106333,0.000170133,0.000233933,0.000308366,0.000372166,0.0004147,0.000457233,0.000510399,0.000531666,0.000531666,0.000521033,0.000552933,0.000499766,0.000265833,0.000446599,0.000680533,0.000925099,0.001159032,0.0003828,0.000691166,0.0001914,0.000829399,0.001020799,0.000659266,0.000425333,0.001042065,0.000361533\nSRI-1053089-001.txt,COc1ccc(OC)c(c1)S(=O)(=O)NC(Cc1ccccc1)C(O)=O,0.959941247,0.973294165,0.986647082,1,1,0.973294165,0.933235412,0.879823741,0.799706236,0.706235813,0.612765389,0.523300841,0.448524503,0.377754039,0.319001202,0.269595407,0.24956603,0.242889571,0.245560155,0.24155428,0.24155428,0.232207237,0.225530778,0.214848444,0.205501402,0.193483776,0.18146615,0.166777941,0.15075444,0.133395647,0.120042729,0.124048605,0.128989184,0.134063293,0.137535051,0.139805047,0.143677394,0.15876619,0.166644412,0.175857925,0.184136734,0.191347309,0.206436106,0.217786086,0.224729603,0.23501135,0.247162505,0.259580718,0.272933636,0.278007745,0.292161837,0.300841234,0.305915343,0.312992389,0.321004139,0.32087061,0.315395914,0.317532381,0.317398852,0.316197089,0.318333556,0.316731206,0.312458272,0.302710642,0.288155962,0.26251836,0.239684871,0.221925491,0.214314328,0.203631994,0.194819068,0.198424356,0.188276138,0.162505007,0.138069168,0.113766858,0.089331019,0.059687542,0.047135799,0.041126986,0.034450527,0.022299372,0.013085859,0.00814528,0.009614101,0.00974763,0.011216451,0.010548805,0.010281747,0.010148217,0.0064094,0.007077046,0.005875284,0.00654293,0.005608225,0.002403525,0.004005875,0.006943517,0.00654293,0.00814528,0.008278809,0.009480572,0,0.008679396,0.011884097,0.005474696,0.00814528,0.006275871,0.004005875,0.010148217,0.008946455,0.007744692,0.012818801,0.00654293,0.012017626,0.008679396,0.005741755,0.007611163,0.01455468,0.007077046,0.008278809,0.008812926,0.007344105,0,0.002670584,0.006142342,0.011884097,0.004673521,0.005207638,0.005608225,0.004673521,0.008679396,0.0032047,0.002002938,0.012151155,0.014154093,0.010281747,0.008946455,0.008545867,0.008011751,0.00654293,0.005608225,0.005474696,0.008946455,0.007878221,0.005741755,0.00494058,0.003872346,0.004005875,0.004139404,0.004406463,0.00480705,0.005474696,0.005875284,0.005608225,0.005207638,0.005341167,0.005341167,0.005074109,0.004673521,0.004272934,0.004272934,0.004539992,0.005341167,0.00654293,0.005341167,0.005474696,0.013085859,0.011750567,0.010682334,0.004272934,0.006943517,0.008545867,0.008545867,0.007344105,0.005341167,0.008011751,0.015756443,0.010281747,0.006676459,0.005474696\nSRI-1052841-001.txt,COC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)[C@H](CC(C)C)N1Cc2ccccc2C1=O,0.984107216,0.997003819,1,0.997264357,0.988927159,0.967172283,0.935777522,0.904643298,0.86074274,0.80785364,0.745064118,0.678040863,0.613062826,0.555757617,0.507922943,0.469819343,0.440574016,0.418623737,0.402431335,0.390368452,0.381510179,0.375113985,0.37034615,0.366607438,0.36355915,0.36101891,0.358804342,0.356550693,0.354257963,0.351782858,0.349099322,0.346219081,0.343417001,0.340358291,0.337445483,0.334536582,0.331683697,0.328790429,0.325749957,0.322860597,0.320177061,0.317368468,0.314764396,0.312462548,0.310159397,0.308223604,0.306536624,0.305028112,0.304018529,0.303411477,0.303356764,0.303483125,0.303638145,0.303003736,0.300660202,0.295996582,0.289746289,0.283892012,0.280304412,0.279287013,0.279464179,0.277713367,0.27202844,0.262255681,0.249603983,0.234867986,0.219617427,0.206152852,0.196813888,0.191999156,0.189737691,0.185794457,0.17595005,0.159718567,0.139633736,0.119012198,0.100142775,0.083863093,0.070277368,0.058665215,0.048927628,0.040744147,0.033991017,0.028375132,0.023716723,0.019944141,0.016863286,0.014418142,0.012406793,0.010855292,0.009547394,0.008500034,0.007670222,0.006958955,0.006358416,0.005867303,0.005368374,0.004991897,0.00467795,0.004339251,0.004074806,0.003772582,0.00350032,0.003256718,0.003036564,0.002794264,0.002598861,0.002455565,0.002300546,0.002094721,0.001903226,0.001761233,0.001606213,0.001306595,0.00118284,0.001044755,0.000868892,0.000798547,0.000707359,0.000561458,0.000501535,0.000406438,0.000414255,0.000419465,0.000333488,0.000330883,0.000321764,0.000297013,0.000333488,0.000338699,0.000328277,0.000341304,0.000336093,0.000269656,0.000265748,0.00022797,0.000238392,0.000257932,0.000231878,0.000181074,0.000214943,0.000221457,0.000221457,0.000231878,0.000216246,0.000234484,0.000233181,0.000234484,0.000234484,0.000224062,0.000213641,0.000201917,0.000187587,0.000175863,0.000164139,0.000153717,0.000143296,0.000135479,0.000126361,0.000118545,0.000113334,0.000108123,0.000105518,0.000109426,0.000109426,9.77E-05,0.00012115,0.000138085,5.6E-05,9.38E-05,0.000114636,0.00012115,7.16E-05,9.25E-05,5.47E-05,0.000118545,8.08E-05,9.9E-05,6.77E-05,0,4.17E-05\nSRI-0000599.txt,CC12CC(=O)C3C(CCC4=CC(=O)CCC34C)C1CCC21OCOC11COCO1,0.480521596,0.510657534,0.541607956,0.571743893,0.60513777,0.638531647,0.672740008,0.70694837,0.740342247,0.773736123,0.804686546,0.834822483,0.863166554,0.88963731,0.914153302,0.935248459,0.954551748,0.969945511,0.983140165,0.992343843,0.998126685,1,0.998208133,0.992180946,0.981674092,0.967746402,0.948931803,0.926533471,0.901040097,0.871311402,0.837998974,0.800915481,0.762365915,0.720028996,0.676177134,0.630908069,0.584010034,0.537185303,0.490034779,0.443560276,0.398771757,0.355563338,0.314635477,0.276680486,0.241470308,0.209819429,0.181263592,0.156405516,0.134707641,0.115420641,0.09937529,0.085936291,0.075185092,0.066152455,0.058463719,0.052558704,0.047492609,0.043656385,0.040422881,0.037840964,0.035967649,0.034436417,0.033165821,0.031862645,0.031170333,0.029973041,0.028954935,0.028270767,0.027260806,0.026951302,0.026039079,0.025680706,0.025053552,0.024059881,0.022960326,0.022618243,0.021575702,0.020842666,0.020313251,0.019254421,0.018203735,0.017486989,0.016672504,0.015727701,0.014611857,0.014106877,0.013544882,0.012697818,0.01206252,0.011231745,0.010620882,0.01019735,0.009521327,0.009097795,0.008796436,0.008161138,0.007916792,0.007248915,0.007053438,0.006581037,0.006279678,0.006067912,0.005831711,0.005457048,0.005465193,0.0053756,0.005277861,0.004870619,0.004438942,0.004422652,0.004251611,0.004219031,0.003852513,0.003551154,0.003575588,0.003323098,0.00349414,0.003339388,0.002989159,0.002761103,0.002866986,0.002663365,0.002443454,0.002370151,0.002353861,0.00267151,0.001840736,0.00189775,0.001971053,0.001889605,0.001441638,0.001018106,0.001229872,0.001311321,0.001140279,0.00105883,0.001026251,0.001164713,0.000944802,0.001197293,0.001026251,0.000798195,0.000741181,0.000586429,0.000692312,0.000594574,0.000619008,0.000602719,0.000561995,0.000545705,0.00052127,0.000513125,0.00052127,0.000504981,0.000513125,0.000496836,0.000488691,0.000472401,0.000447967,0.000423532,0.000407242,0.000358373,0.000317649,0.00026878,0.000187332,0.000228056,0.000350228,0.000122173,0.000195476,0.000325794,0.000602719,0.000545705,0.00025249,0.000423532,0,0.000187332,0.000399098,0.000219911,0.000244345,0.000179187,0.000333939\nSRI-0000566.txt,O=C(NC1=CC=CN=C1NC(=O)C1=CSC=N1)C1=CSC=N1,0.743980105,0.754003414,0.765823353,0.779156245,0.793529292,0.808658815,0.824781213,0.841849206,0.85877536,0.875748793,0.892580387,0.908750065,0.924021427,0.938583593,0.952011045,0.963830984,0.974327091,0.982837447,0.990354929,0.995224744,0.998676167,1,0.999574482,0.997588732,0.993286274,0.988170604,0.98082333,0.972123854,0.962351128,0.951041809,0.938536313,0.924938655,0.910362305,0.89451413,0.87872269,0.862543556,0.846170576,0.830804654,0.815859522,0.802654286,0.79122204,0.781515505,0.77356305,0.766967524,0.762107164,0.758792853,0.756235018,0.754443115,0.753511704,0.753034179,0.752367534,0.752102767,0.751322651,0.750457432,0.749157238,0.7473086,0.744755493,0.741044032,0.736576094,0.731394233,0.725044561,0.717451432,0.70846355,0.698648272,0.687807023,0.675689221,0.661580941,0.646536521,0.630267556,0.613024628,0.594155276,0.574009371,0.552955694,0.530857135,0.507916996,0.484366948,0.459819297,0.435162902,0.410303205,0.385221293,0.360484523,0.336220551,0.312514479,0.289304846,0.267002983,0.246024954,0.225718298,0.206787482,0.189057573,0.172547481,0.157157919,0.143016543,0.130260464,0.118360149,0.107315597,0.097457767,0.088176751,0.079902793,0.072323847,0.065874888,0.059449569,0.05377127,0.048854175,0.044064735,0.039937212,0.035998809,0.032774329,0.029535665,0.026850175,0.024141045,0.022160023,0.019909507,0.018188523,0.016628291,0.015512489,0.014027905,0.012921558,0.012165082,0.011507893,0.010732505,0.010141508,0.009673439,0.009418128,0.009351936,0.009214825,0.008935874,0.009101354,0.009106082,0.009068258,0.009134449,0.009020978,0.009002066,0.009186457,0.009214825,0.009181729,0.009181729,0.008940602,0.008987882,0.008921691,0.008708932,0.008519813,0.008586004,0.008675836,0.008467805,0.008387429,0.008325966,0.00824559,0.008212494,0.008122663,0.007782248,0.007337819,0.006898117,0.006496239,0.006151097,0.005853234,0.005593195,0.005333157,0.005040022,0.004732704,0.00439229,0.004023507,0.003616902,0.003134648,0.002614571,0.002103949,0.001768263,0.001645336,0.001271826,0.000983419,0.00119145,0.000959779,0.000813212,0.000709196,0.000614637,0.000775388,0.000463342,0.00044443,0.000260039,0.000463342,0.000208031,0\nSRI-0000572.txt,CS\\C(N)=N\\C(=O)NC1=CC=CC=C1,0.588851314,0.582504438,0.57893432,0.57824013,0.579628509,0.584388667,0.591231393,0.600355028,0.612453762,0.626436725,0.642799766,0.660749526,0.680781856,0.701409205,0.722334064,0.743655603,0.765968841,0.78659619,0.806727689,0.826760019,0.845979154,0.863621488,0.880500213,0.896169065,0.91103464,0.924918433,0.937344427,0.949373742,0.96000476,0.969753166,0.977785932,0.985491437,0.991570554,0.995636522,0.999137221,1,0.999920664,0.999047969,0.995011752,0.989002053,0.981901485,0.972817517,0.962136914,0.949849758,0.936005633,0.920455785,0.902535776,0.883376142,0.863066136,0.841377669,0.818003312,0.794113272,0.768299335,0.742287057,0.715332666,0.688298938,0.661493301,0.634251316,0.607168004,0.57913266,0.551275821,0.523557821,0.495562145,0.467784643,0.440473239,0.412606484,0.385106657,0.358330771,0.333369696,0.308041691,0.283814473,0.261124389,0.239584676,0.21874907,0.199351429,0.181153743,0.164225433,0.148407826,0.133730674,0.120550988,0.108075409,0.096660948,0.086545613,0.077005464,0.068685106,0.060870514,0.053948451,0.047641243,0.042097643,0.037506074,0.03293434,0.028927874,0.025318088,0.02247191,0.019843907,0.017176235,0.015401093,0.013358192,0.011721888,0.010343426,0.008964963,0.008221189,0.007388161,0.006277458,0.005424596,0.004978331,0.004184972,0.004046134,0.003262691,0.003094102,0.002885845,0.002389996,0.002122237,0.002132154,0.001993316,0.002092486,0.001547051,0.001080952,0.001041284,0.001061118,0.001071035,0.001180122,0.000555352,0.000723941,0.000684273,0.000823111,0.000803277,0.000763609,0.00049585,0.000644605,0.000257842,0.000684273,0.000842945,0.000674356,0.000545435,0.000505767,0.000614854,0.000386763,0.000317344,0.000357012,0.000376846,0.00059502,0.000416514,0.000416514,0.000238008,0.000128921,0.000158672,0.000158672,7.93E-05,2.98E-05,1.98E-05,2.98E-05,3.97E-05,5.95E-05,6.94E-05,8.93E-05,0.000109087,0.000128921,0.000138838,0.000178506,0.000208257,0.000228091,0.000267759,0.000307427,0.000357012,0.000357012,0.00019834,7.93E-05,0.000158672,0.00059502,0.000684273,0.000604937,0.000119004,0,7.93E-05,3.97E-05,0.000416514,0.000704107,0.000366929,0.000545435,0.000833028\nSRI-0000610.txt,CC12CC3OC33C(CCC4=CC(=O)C=CC34C)C1CC[C@]2(O)C(=O)CO,1,0.923352069,0.882473173,0.851814001,0.810935105,0.739397036,0.678078692,0.662749106,0.62187021,0.606540623,0.616760347,0.601430761,0.601430761,0.591211037,0.611650485,0.62187021,0.642309658,0.64741952,0.657639244,0.662749106,0.683188554,0.69851814,0.69851814,0.703628002,0.703628002,0.713847726,0.713847726,0.729177312,0.738375064,0.741440981,0.732243229,0.730199285,0.726622381,0.722023505,0.706693919,0.711292795,0.686765457,0.667858968,0.664793051,0.637199796,0.61778232,0.601941748,0.608073582,0.571793562,0.552887072,0.530403679,0.541645376,0.504343383,0.468574348,0.443025038,0.431783342,0.392437404,0.38221768,0.356157384,0.358201329,0.333673991,0.314767501,0.283597343,0.249361267,0.239141543,0.235053654,0.201328564,0.181400102,0.186509964,0.168625447,0.162493613,0.145631068,0.119059785,0.126213592,0.10628513,0.092999489,0.075114972,0.09146653,0.064895248,0.079202862,0.059785386,0.060296372,0.073071027,0.060296372,0.032192131,0.040878896,0.052120593,0.05109862,0.042922841,0.061318344,0.057741441,0.048032703,0.05518651,0.037812979,0.042922841,0.055697496,0.048543689,0.043433827,0.051609607,0.063873275,0.063362289,0.052120593,0.05518651,0.039345938,0.054675524,0.05518651,0.046499745,0.058763413,0.048032703,0.068983137,0.072560041,0.08073582,0.07000511,0.047521717,0.041389882,0.0444558,0.065406234,0.046499745,0.054675524,0.059785386,0.050076648,0.053142565,0.033214103,0.026571283,0.050076648,0.042922841,0.045477772,0.052120593,0.030659172,0.066428206,0.087889627,0.028615227,0.046499745,0.037301993,0.047010731,0.0444558,0.050587634,0.048032703,0.037812979,0.038834951,0.032192131,0.022483393,0.014307614,0.022994379,0.016862545,0.020950434,0.020439448,0.005109862,0.026571283,0.039345938,0.020439448,0.015329586,0.015840572,0.015840572,0.012774655,0.015329586,0.016862545,0.017884517,0.017884517,0.017373531,0.017373531,0.015840572,0.014307614,0.012263669,0.01073071,0.009197752,0.007153807,0.005109862,0.005109862,0.007664793,0.012263669,0.006131834,0.002554931,0.015329586,0.034236076,0.028615227,0.030148186,0.009197752,0.002043945,0,0.009197752,0.005109862,0.017884517,0.0148186,0.011752683,0.003065917\nSRI-0000348.txt,C[C@@H]1C2NCC(C)CC2OC11CCC2C3CC=C4CC(O)CCC4(C)C3C(=O)C2=C1C,0.207445905,0.219261124,0.231076343,0.245748838,0.262043029,0.279495575,0.299187607,0.321350796,0.3455218,0.370310594,0.397416096,0.42622052,0.455642732,0.487149984,0.519197801,0.552944538,0.587463512,0.621519144,0.656269789,0.692101565,0.726311644,0.760212828,0.794345684,0.826547948,0.856819621,0.88573988,0.911903254,0.935085795,0.955079,0.972230374,0.985003166,0.99454801,0.999606159,1,0.995088576,0.986555362,0.97215315,0.954044203,0.930938885,0.903864272,0.871986347,0.836957697,0.798639319,0.757170216,0.713538851,0.667042488,0.618816316,0.569732961,0.520132207,0.470222559,0.421394041,0.37369299,0.328100144,0.285333683,0.245795172,0.209824393,0.177205121,0.148416143,0.123573293,0.102251842,0.08471435,0.070443418,0.058041299,0.047284044,0.038426491,0.031260136,0.025947148,0.021537677,0.018201616,0.015174448,0.013274746,0.011575826,0.010085409,0.008981111,0.008015815,0.006795682,0.006116113,0.005444268,0.005258931,0.004625697,0.004123743,0.004000185,0.003637234,0.003814849,0.003282005,0.003004,0.003011723,0.003150725,0.002756884,0.002849553,0.002679661,0.002625604,0.002803219,0.002725995,0.00274144,0.002393933,0.002586992,0.002633327,0.003027167,0.002895887,0.002926777,0.002888165,0.002934499,0.002888165,0.002988555,0.00313528,0.003266561,0.003189337,0.003536843,0.003405563,0.00316617,0.003413286,0.00385346,0.003714458,0.003714458,0.003953851,0.003807126,0.003984741,0.004386304,0.004409471,0.004401748,0.004726088,0.004625697,0.00460253,0.004826478,0.005390211,0.004911424,0.00499637,0.004934592,0.00502726,0.005282098,0.005506047,0.005228041,0.005204874,0.005459712,0.005197152,0.005544658,0.005575548,0.005552381,0.005675939,0.005397933,0.005467435,0.00518943,0.005274376,0.004988648,0.005050427,0.004965481,0.00486509,0.004718365,0.004587085,0.004417193,0.004255023,0.004123743,0.004031075,0.003961574,0.00388435,0.003807126,0.003729903,0.003637234,0.003529121,0.003390118,0.003235671,0.003050334,0.002803219,0.002471157,0.002169985,0.00199237,0.002177707,0.001652586,0.001366859,0.001204689,0.00130508,0.001243301,0.000895794,0.000563733,0.000648679,0.000857183,0.000857183,0.000169892,0,0.000139003\nSRI-0000370.txt,COC(=O)NC1C(OC2OC(C)(C)OC12)C1COC(C)(C)O1,1,0.840909091,0.761363636,0.681818182,0.579545455,0.579545455,0.545454545,0.431818182,0.386363636,0.261363636,0.181818182,0.159090909,0.113636364,0.079545455,0.034090909,0,0.011363636,0,0,0,0.011363636,0,0,0,0,0,0,0,0.010227273,0.020454545,0.011363636,0.044318182,0.027272727,0.026136364,0.05,0.067045455,0.063636364,0.065909091,0.073863636,0.056818182,0.122727273,0.094318182,0.059090909,0.111363636,0.129545455,0.172727273,0.180681818,0.170454545,0.170454545,0.198863636,0.189772727,0.242045455,0.259090909,0.230681818,0.220454545,0.235227273,0.218181818,0.227272727,0.209090909,0.25,0.221590909,0.172727273,0.159090909,0.123863636,0.085227273,0.069318182,0.059090909,0.117045455,0.079545455,0.063636364,0.079545455,0.104545455,0.088636364,0.009090909,0.011363636,0.007954545,0.022727273,0.057954545,0.028409091,0.038636364,0.022727273,0.0625,0.030681818,0.027272727,0.017045455,0.05,0.006818182,0.047727273,0.015909091,0.017045455,0.064772727,0.075,0.020454545,0.005681818,0.027272727,0.014772727,0.036363636,0.004545455,0.021590909,0,0.046590909,0.003409091,0.064772727,0.014772727,0.059090909,0.013636364,0.071590909,0.059090909,0.05,0,0.063636364,0.055681818,0.021590909,0.059090909,0.048863636,0.011363636,0.010227273,0.065909091,0.053409091,0.019318182,0.043181818,0.044318182,0.011363636,0.0625,0.069318182,0.030681818,0.029545455,0.070454545,0,0.017045455,0.072727273,0.053409091,0.086363636,0.05,0.061363636,0.068181818,0.025,0.038636364,0.070454545,0.036363636,0.0125,0.05,0.052272727,0.088636364,0.065909091,0.053409091,0.047727273,0.046590909,0.046590909,0.043181818,0.036363636,0.030681818,0.026136364,0.025,0.023863636,0.021590909,0.020454545,0.020454545,0.020454545,0.020454545,0.020454545,0.019318182,0.020454545,0.021590909,0.023863636,0.021590909,0.004545455,0.034090909,0.104545455,0.034090909,0.002272727,0.025,0,0.004545455,0.048863636,0.017045455,0.030681818,0.025,0.047727273,0,0.025\nSRI-1052991-001.txt,Clc1ccc2[nH]c3CCN(Cc3c2c1)C(=O)CN1C(=O)c2ccccc2C1=O,0.971411004,0.98368208,0.994256092,1,0.998955653,0.993342289,0.981462843,0.970888831,0.964883836,0.955354171,0.945302332,0.938122447,0.932887658,0.92666074,0.918527889,0.903293478,0.882497921,0.849522668,0.803127558,0.740009843,0.661292197,0.571974429,0.480802946,0.395740892,0.322271089,0.261294285,0.212993242,0.175331482,0.147016627,0.126064418,0.110908334,0.100252079,0.093021282,0.088332165,0.085538537,0.084165221,0.084017707,0.084830992,0.086439286,0.08861936,0.091303332,0.094506866,0.098235184,0.102326413,0.106720503,0.111230776,0.115991692,0.120978449,0.126142744,0.131457164,0.136612321,0.142065118,0.14741609,0.152717456,0.157913082,0.163121762,0.16808502,0.172836799,0.177383624,0.181733329,0.185725345,0.189227823,0.192461382,0.19504353,0.197206633,0.199466339,0.201641191,0.204415238,0.207063962,0.209422881,0.210948933,0.211210019,0.209838009,0.206757185,0.202045876,0.196521281,0.191726423,0.188682152,0.187273589,0.185601328,0.181409581,0.172775443,0.159996554,0.144858746,0.129296672,0.114641874,0.101330367,0.089450922,0.07863932,0.068902091,0.059861963,0.051619456,0.044205898,0.037502497,0.031631962,0.02649247,0.022022665,0.018197744,0.015042511,0.012395092,0.010161495,0.00835347,0.006870497,0.005635557,0.004724364,0.003903246,0.00337324,0.002882397,0.0023785,0.002026033,0.001747976,0.001518219,0.001326321,0.001108313,0.001063928,0.000858975,0.000801536,0.000695796,0.00064619,0.000582223,0.000573085,0.000493454,0.000428182,0.000408601,0.00039163,0.000330275,0.000374659,0.000338107,0.000327664,0.000261087,0.000291112,0.000302861,0.000278057,0.000246727,0.000178844,0.000163179,0.000190593,0.000221924,0.000208869,0.000177539,0.000193204,0.000191899,0.000160568,0.000131849,0.000135765,0.000118794,0.000118794,0.000114878,0.000108351,9.92E-05,8.88E-05,8.88E-05,8.49E-05,8.22E-05,7.57E-05,7.44E-05,7.31E-05,7.05E-05,6.4E-05,5.74E-05,5.48E-05,5.22E-05,4.96E-05,4.96E-05,4.05E-05,3.92E-05,4.44E-05,5.35E-05,3.66E-05,7.05E-05,8.62E-05,0.000126627,2.09E-05,4.31E-05,1.57E-05,2.87E-05,3.13E-05,1.96E-05,4.96E-05,1.44E-05,0\nSRI-1053347-001.txt,Cc1ccc(cc1)S(=O)(=O)N1CCCCC1C(O)=O,1,0.969412541,0.940224508,0.909237213,0.879649344,0.849661639,0.818974221,0.78848672,0.759798483,0.729810778,0.700522786,0.672334343,0.643846023,0.615157785,0.585369998,0.553583031,0.520296678,0.486310613,0.450625244,0.414040244,0.378354875,0.343469178,0.310382743,0.279095571,0.250507292,0.224218071,0.200827661,0.180735898,0.162943193,0.147349587,0.134105017,0.122289861,0.111724193,0.102917804,0.095230955,0.088363771,0.082396218,0.07748823,0.072980078,0.069981308,0.067102488,0.064493558,0.06263432,0.061404824,0.059895443,0.059275697,0.058735918,0.058555992,0.058396058,0.058915845,0.059385652,0.059645545,0.059435631,0.059155746,0.059615558,0.060685119,0.062114533,0.062994172,0.063044152,0.061924611,0.059435631,0.056916664,0.054887496,0.053697984,0.052978279,0.051948701,0.050569267,0.047440549,0.042672504,0.037644566,0.031527074,0.025719455,0.02034166,0.016793115,0.01385432,0.01058566,0.00892634,0.007856779,0.006407373,0.006177467,0.005457762,0.00509791,0.004278246,0.00409832,0.003588529,0.003038754,0.00260893,0.002199098,0.002179107,0.001709299,0.001409422,0.001429414,0.000879639,0.00060975,0.000539779,0.000279885,0.00055977,0.000649734,0.000699713,0.000579762,0.000529783,0.000449816,0.00055977,0.000809668,0.000599754,0.000699713,0.000359852,0.000699713,0.000669725,0.000529783,0.000569766,0.000239902,0.000809668,0.000549775,0.000549775,0.000469807,0.000639738,0.000649734,0.000969602,0.00055977,0.000839656,0.000329865,0.000709709,0.000529783,0.000499795,0.000339861,0.00077968,0.000909627,0.000269889,0.000739697,0.000649734,0.00082966,0.000899631,0.00055977,0.000359852,0.000619746,0.000619746,0.00043982,0.000689717,0.000529783,0.000299877,0.000849652,0.000749693,0.000369848,0.000299877,0.000379844,0.000449816,0.000509791,0.000499795,0.000459811,0.000379844,0.000329865,0.000299877,0.000289881,0.000269889,0.000259893,0.000249898,0.000239902,0.000239902,0.000229906,0.000189922,0.000159934,0.000119951,7E-05,0.000139943,0.000289881,0.000109955,0.000309873,0.000289881,0.000429824,0.000289881,0.000799672,0.000329865,0.000479803,0.000649734,0.00016993,0.000449816,0,0.000109955,0.000349857,0.000549775\nSRI-0000589.txt,[O-][N+](=O)C1=CC=C(O1)\\C=C\\C1=NC=CS1,0.208351794,0.21389012,0.218197706,0.220659184,0.221274553,0.220659184,0.216966967,0.210813272,0.201890415,0.191490671,0.179367892,0.166260523,0.153276227,0.141091912,0.130630631,0.121092404,0.113584896,0.107800423,0.103554374,0.101092896,0.099431399,0.098816029,0.098816029,0.099123714,0.099739083,0.100292916,0.100785211,0.100969822,0.100477527,0.099806774,0.098372963,0.096422242,0.093345395,0.090047014,0.086102496,0.08129646,0.075862748,0.069967508,0.063370748,0.056527839,0.049408015,0.042251268,0.035802196,0.028854674,0.022910205,0.016898046,0.011790479,0.007292128,0.003642987,0.001107665,0,0.000215379,0.001944568,0.005009107,0.009944371,0.015630384,0.02270098,0.030940777,0.039814405,0.050078767,0.061155418,0.072742825,0.084637917,0.097382218,0.110458819,0.123713878,0.13714124,0.150931669,0.164771329,0.178506375,0.192142963,0.205798011,0.219188451,0.231969675,0.243932457,0.255218333,0.265445774,0.274436322,0.282516123,0.289297494,0.294312755,0.298343425,0.301278738,0.303124846,0.30358022,0.303180229,0.30114951,0.298011126,0.293211244,0.287223699,0.279476198,0.270577955,0.260645892,0.250356914,0.239452567,0.228585143,0.217680796,0.207330281,0.197502831,0.188863043,0.180789396,0.173804952,0.167725102,0.162697534,0.158353025,0.155060799,0.15276547,0.151097819,0.150107074,0.150057845,0.150790134,0.152193177,0.153977748,0.156703835,0.160285285,0.164629794,0.169860434,0.175294147,0.182050903,0.189219958,0.197330527,0.206185694,0.215816226,0.22638212,0.23757569,0.249864619,0.262965835,0.277113179,0.291229754,0.305469404,0.319339832,0.334133314,0.350471373,0.36710481,0.3840767,0.4015655,0.419331216,0.438247674,0.456825678,0.476086742,0.495280116,0.515304239,0.535451435,0.555937085,0.576564269,0.596163787,0.610040368,0.618655541,0.629953724,0.65354699,0.68204475,0.708967164,0.730043568,0.745187811,0.756166002,0.765962684,0.775740905,0.787340619,0.799506474,0.813499975,0.828078078,0.846391473,0.867763255,0.892125732,0.917534338,0.937872299,0.952696549,0.962560922,0.972006843,0.979366662,0.98536036,0.990351007,0.994806282,0.997710826,0.999107714,1,0.999593856,0.997858514,0.994430906,0.990394083,0.985391129\nSRI-0000615.txt,CC1(C)OCC(O1)C(O)C(O)C1COC(C)(C)O1,1,0.854948805,0.820819113,0.684300341,0.607508532,0.470989761,0.394197952,0.30887372,0.249146758,0.197952218,0.138225256,0.104095563,0.12116041,0.104095563,0.112627986,0.104095563,0.112627986,0.087030717,0.09556314,0.087030717,0.078498294,0.078498294,0.061433447,0.052901024,0.06996587,0.061433447,0.035836177,0.031569966,0.037542662,0.049488055,0.023890785,0.024744027,0.101535836,0.112627986,0.110068259,0.098122867,0.15443686,0.125426621,0.155290102,0.149317406,0.129692833,0.092150171,0.068259386,0.049488055,0.029010239,0.052047782,0.066552901,0.050341297,0.053754266,0.034129693,0.023037543,0.028156997,0.043515358,0.029010239,0.039249147,0.057167235,0.038395904,0.035836177,0.075085324,0.061433447,0.063993174,0.083617747,0.059726962,0.096416382,0.076791809,0.120307167,0.141638225,0.129692833,0.12116041,0.197952218,0.186006826,0.178327645,0.197952218,0.23890785,0.258532423,0.279863481,0.231228669,0.299488055,0.314846416,0.338737201,0.354948805,0.354948805,0.389078498,0.364334471,0.348122867,0.399317406,0.406143345,0.433447099,0.427474403,0.386518771,0.406996587,0.397610922,0.411262799,0.410409556,0.400170648,0.436860068,0.401023891,0.372013652,0.373720137,0.348122867,0.348976109,0.33105802,0.329351536,0.252559727,0.225255973,0.261945392,0.190273038,0.184300341,0.163822526,0.133959044,0.098976109,0.039249147,0.007679181,0.027303754,0.028156997,0.08105802,0.058020478,0.075085324,0.058020478,0.017918089,0.046075085,0.057167235,0.015358362,0.023890785,0.038395904,0.040102389,0.027303754,0.013651877,0.064846416,0.076791809,0.069112628,0.04778157,0.038395904,0.069112628,0.068259386,0.063139932,0.068259386,0.075938567,0.035836177,0.032423208,0.017064846,0.006825939,0.028156997,0.058020478,0.040102389,0.030716724,0.028156997,0.029863481,0.034129693,0.038395904,0.040955631,0.040955631,0.039249147,0.040102389,0.041808874,0.041808874,0.041808874,0.043515358,0.045221843,0.046928328,0.046928328,0.046928328,0.04778157,0.049488055,0.052047782,0.049488055,0.019624573,0.005119454,0.033276451,0.04778157,0.062286689,0.092150171,0.071672355,0.035836177,0.066552901,0,0.011945392,0.094709898,0.071672355,0.029863481,0.074232082\nSRI-0000417.txt,CCCCCCCC(=O)NC1=CC=C(C=C1)S(=O)(=O)C1=CC=C(N)C=C1,0.449648604,0.403714535,0.363905008,0.328688889,0.299597311,0.275099141,0.255194378,0.238351886,0.2261028,0.219978258,0.215384851,0.215384851,0.219978258,0.2261028,0.236973864,0.247844927,0.262084488,0.278161412,0.296075699,0.315827349,0.336803907,0.360077169,0.38457534,0.409992191,0.436940179,0.466184869,0.495123333,0.525592932,0.556981213,0.587450812,0.618839093,0.649155579,0.678706497,0.70674159,0.732663717,0.757070019,0.779087749,0.796558007,0.808225261,0.814227312,0.810751634,0.79919156,0.779286797,0.753915879,0.724977416,0.695931773,0.669994335,0.649553674,0.634655724,0.627290962,0.62614261,0.630414478,0.639662538,0.652631257,0.668968474,0.68619375,0.70560855,0.726370749,0.748755952,0.770452144,0.793786652,0.815804382,0.837822113,0.859395814,0.878596255,0.897888564,0.915404756,0.932522852,0.948155747,0.962150327,0.974338167,0.9854389,0.992573992,0.997443003,1,0.997320513,0.992604615,0.982866592,0.968657653,0.950682121,0.928189738,0.901915451,0.871292738,0.836520647,0.798548483,0.758417418,0.715070968,0.670897705,0.625453599,0.579228614,0.533233299,0.487727948,0.4438456,0.401325963,0.360214971,0.322212185,0.28682764,0.253203901,0.221938111,0.195372908,0.171104408,0.148412978,0.128753196,0.111359495,0.095787846,0.082130116,0.070646599,0.060035829,0.051874876,0.044647915,0.038018098,0.031633262,0.02630491,0.023303884,0.0200885,0.016612822,0.01489795,0.012723737,0.010901686,0.009799268,0.009110257,0.007686301,0.006017363,0.005894872,0.005512088,0.004256557,0.003674726,0.004149378,0.003429744,0.003077583,0.00304696,0.003092894,0.002863224,0.002327326,0.002296703,0.002556997,0.002955092,0.001699561,0.001668938,0.001546447,0.002051722,0.001194286,0.001515824,0.002204835,0.001959854,0.001638315,0.001607692,0.001638315,0.001623004,0.001546447,0.001500513,0.001454579,0.001454579,0.001439268,0.001439268,0.001439268,0.001423956,0.001408645,0.001423956,0.001408645,0.001408645,0.001393333,0.001408645,0.001439268,0.001454579,0.001378022,0.001087106,0.000857436,0.002112967,0.001025861,0.001056484,0.001056484,0,0.000995238,0.001332088,0.000734945,0.000796191,0.00113304,0.001270843,0.001286154,0.001561758\nSRI-0000159.txt,NC1=CC=CC=C1SCC1=CC=CC=C1,1,0.968556228,0.935435454,0.90105693,0.865839905,0.828945879,0.791632603,0.755577077,0.720779302,0.686820028,0.655795506,0.628124987,0.602550719,0.580330453,0.560709539,0.543394502,0.527546841,0.513250406,0.498828195,0.484489835,0.4695226,0.454136114,0.438288453,0.421308816,0.404161478,0.386804516,0.369782954,0.352845242,0.33582368,0.319221368,0.303289857,0.287903371,0.273606936,0.259889066,0.24703066,0.234696316,0.223120815,0.211947795,0.201399457,0.191115248,0.181409603,0.172236407,0.16321414,0.154384729,0.145957798,0.1377363,0.129674117,0.122224039,0.115377682,0.10902604,0.103085263,0.097467309,0.09226022,0.087782627,0.083602702,0.079892337,0.076898889,0.074475623,0.072618344,0.071285128,0.070907803,0.071469598,0.072513531,0.07413603,0.076228089,0.078567506,0.08153999,0.084416047,0.08839054,0.09247823,0.097496656,0.103190076,0.108501977,0.114086391,0.119289287,0.124664076,0.129837624,0.134742853,0.139484574,0.143786082,0.147475484,0.150720482,0.153621694,0.155621518,0.157072124,0.157734539,0.157822582,0.157277556,0.15587726,0.153864859,0.151282277,0.148184017,0.14445269,0.140226647,0.135208221,0.129854394,0.124441873,0.118635256,0.112359079,0.106124828,0.09954679,0.092863941,0.086168513,0.079686904,0.073435882,0.067071662,0.061080576,0.055282344,0.049811128,0.044440531,0.039627538,0.035082865,0.030823282,0.026982949,0.023498979,0.020262367,0.017600127,0.015084626,0.013038684,0.01125687,0.009512789,0.007953178,0.00681701,0.005873697,0.005106469,0.004477593,0.00388645,0.003161147,0.002842517,0.002431652,0.002163332,0.001920166,0.001773429,0.001417066,0.001370948,0.001547034,0.001249366,0.001136168,0.001127783,0.001043933,0.000985238,0.000788191,0.000842693,0.000825923,0.000838501,0.000846886,0.000867848,0.000821731,0.000679185,0.000498908,0.000364748,0.00026832,0.000226395,0.000222203,0.00025155,0.000289283,0.00031863,0.000343785,0.000364748,0.000377325,0.000389903,0.000398288,0.000398288,0.000398288,0.000389903,0.000310245,0.000243165,0.0003354,0.000142545,0.0001677,0.000109005,0,0.000176085,3.77E-05,0.00011739,0.00020124,0.000222203,0.000180278,0.000339593,0.00015093,0.00020124\nSRI-1053028-001.txt,O=C(CCCn1nnc2ccccc2c1=O)Nc1nnc(s1)C1CCCC1,0.982285348,0.986872178,0.992750701,0.997416613,1,0.999920917,0.995044115,0.98571229,0.970870997,0.951653763,0.930248559,0.907129884,0.881085128,0.850848959,0.814681545,0.772582886,0.72692548,0.681241713,0.63977572,0.604293694,0.576799078,0.557107345,0.544348578,0.5376265,0.535833946,0.537600139,0.541554303,0.546641993,0.552177821,0.557824367,0.563515726,0.569220265,0.574890536,0.580940405,0.586441965,0.591632463,0.595209663,0.597025942,0.597331731,0.596161298,0.594337111,0.59198043,0.589549937,0.5878681,0.586028096,0.583961386,0.582013302,0.579374557,0.57582899,0.571700844,0.566476076,0.560645003,0.55374367,0.546046232,0.537196815,0.5281286,0.518746688,0.508571308,0.498127045,0.487181921,0.476176166,0.465014881,0.453666432,0.442128183,0.430719104,0.419275755,0.407589885,0.396033183,0.384508115,0.373112217,0.361645143,0.34991973,0.338421023,0.327180655,0.316678397,0.306990697,0.298270449,0.290791808,0.284625949,0.279569892,0.275444382,0.271608844,0.267267172,0.261992318,0.255212246,0.247280195,0.237958914,0.228229036,0.21839635,0.209177877,0.200826684,0.194020251,0.189045913,0.185893127,0.184008309,0.182047044,0.178577925,0.172272352,0.162587288,0.149672991,0.134367742,0.11802914,0.101511281,0.085987236,0.072084398,0.059747408,0.049408589,0.040841235,0.033971535,0.028180004,0.023448189,0.0196601,0.016515222,0.014103183,0.011920484,0.010006669,0.008720248,0.00749973,0.006629814,0.005775715,0.004961157,0.004455024,0.003927802,0.003516569,0.003168603,0.002926081,0.002601839,0.00218797,0.002108887,0.002024532,0.001771465,0.001650204,0.001473585,0.001481493,0.001302238,0.001223155,0.001130891,0.001086077,0.001017538,0.000999085,0.000864644,0.000809285,0.00081983,0.000572036,0.000608941,0.000606305,0.00058258,0.000553583,0.00048768,0.00039278,0.000308425,0.000239886,0.000195072,0.000176619,0.000168711,0.000168711,0.000163439,0.00015553,0.00014235,0.000121261,0.000100172,7.38E-05,5.8E-05,6.59E-05,6.85E-05,9.49E-05,0.000126533,5.01E-05,1.85E-05,0,0,0.000121261,0.000187164,8.17E-05,0.000197708,1.85E-05,7.12E-05,0.000152894,3.69E-05,0.000105444,0\nSRI-1052892-001.txt,COC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)COc1ccc(Br)cc1,0.991078975,1,0.998121889,0.984270824,0.958212039,0.917597897,0.863367452,0.7988074,0.727204432,0.652784299,0.580711804,0.514273641,0.453798479,0.400554043,0.353014368,0.310334304,0.272208658,0.237627946,0.20696779,0.179922997,0.156728331,0.137477697,0.121232041,0.107991361,0.097450465,0.08904592,0.082566438,0.077659874,0.074208846,0.071884684,0.070663912,0.070311766,0.070748427,0.071962156,0.073819138,0.076300592,0.079336088,0.082777726,0.0866795,0.090980374,0.095443234,0.10029815,0.105291577,0.110547939,0.115966288,0.121412809,0.126831158,0.132235421,0.137620903,0.142762231,0.147642971,0.152284252,0.156533477,0.16034839,0.163304066,0.165517889,0.167278618,0.168945441,0.171088835,0.173504554,0.175626819,0.176673866,0.176267725,0.174319185,0.170685041,0.165161048,0.158662785,0.152171565,0.147410555,0.144546436,0.141912386,0.136949479,0.127047141,0.112630294,0.096180393,0.08013898,0.066076627,0.054359564,0.045004226,0.037163114,0.030777538,0.025495352,0.02101371,0.017536858,0.014524838,0.01218659,0.010270917,0.008636961,0.007528876,0.006444267,0.005568598,0.004941779,0.004300873,0.003967509,0.003681097,0.003371209,0.003094187,0.002878205,0.002770213,0.002727956,0.002507278,0.002333552,0.002331205,0.002145741,0.002150437,0.002054183,0.001864025,0.001692647,0.001845244,0.001662128,0.001615175,0.001671518,0.001488403,0.001462579,0.001392149,0.001194948,0.001162081,0.001028266,0.001070523,0.001049394,0.001110433,0.001058785,0.000948446,0.000896798,0.000838107,0.000666729,0.000619777,0.000624472,0.000575171,0.000521176,0.000436661,0.000359189,0.000413184,0.000523523,0.000342755,0.000173725,0.00016903,0.000147901,9.63E-05,0.000192506,0.000166682,0.000112687,0.000110339,9.86E-05,9.39E-05,0.000152596,0.000164335,0.000161987,0.000154944,0.000147901,0.000147901,0.000150249,0.000143206,0.000143206,0.000138511,0.00012912,0.000124425,0.00011973,0.000115034,0.000110339,0.000107991,0.000103296,0.000105644,0.000117382,0.000131468,0.000138511,0.000122077,0.000166682,0.000115034,0.000159639,2.35E-06,0.000178421,4.7E-05,8.22E-05,8.22E-05,0.000161987,3.52E-05,0,2.82E-05,8.22E-05,0.000164335\nSRI-0000213.txt,C1CCC(CC1)N\\C(=N\\C1CCCCC1)N1CCOCC1,1,0.96888286,0.93538823,0.897767957,0.857630342,0.814206198,0.769173753,0.723162341,0.676102036,0.627013873,0.579184381,0.531844372,0.485763034,0.440940367,0.397516223,0.356889125,0.31821996,0.282068136,0.248643433,0.217736071,0.18990546,0.164312486,0.141446632,0.120958268,0.103057172,0.087183934,0.073408481,0.061521034,0.051444674,0.042829772,0.03563437,0.029662676,0.024474155,0.020383475,0.017152887,0.01451667,0.012146174,0.01010433,0.008586932,0.007279313,0.006454184,0.005580107,0.004859868,0.004489259,0.004118651,0.003720072,0.003517286,0.003139684,0.002929906,0.002678172,0.002384482,0.002153726,0.001999888,0.001901991,0.001615294,0.001482435,0.001412508,0.001314612,0.001608302,0.001279649,0.001062878,0.001048892,0.00120273,0.001048892,0.000867084,0.001188745,0.001195737,0.001391531,0.001146789,0.001195737,0.001223708,0.00149642,0.001517398,0.001699206,0.001964925,0.001720183,0.001748154,0.00197891,0.001776124,0.001503412,0.001391531,0.00165725,0.001566346,0.001321604,0.001265663,0.001475442,0.001153782,0.001083855,0.000923025,0.000825129,0.000797158,0.000755203,0.000741217,0.00042655,0.000664299,0.000657306,0.00048249,0.000510461,0.000608358,0.000307675,0.000412564,0.000510461,0.000769188,6.29E-05,5.59E-05,0.000328653,0.000538431,0.000629335,0.000363616,0.000713247,0.000727232,0.000356623,0.000818136,0.00048249,0.000566402,0.000944003,0.000818136,0.000706254,0.001307619,0.001132804,0.000957988,0.001006937,0.000930018,0.000734225,0.000832121,0.001076863,0.001237693,0.001258671,0.000727232,0.000839114,0.001013929,0.000804151,0.001167767,0.001048892,0.000489483,0.000545424,0.000671291,0.001118819,0.000874077,0.000846107,0.000692269,0.000671291,0.000622343,0.000552417,0.000566402,0.000741217,0.000867084,0.000811143,0.00061535,0.000363616,0.00016083,4.2E-05,0,6.99E-06,5.59E-05,0.000125867,0.000202786,0.000272712,0.000335646,0.000377601,0.000412564,0.000461513,0.000475498,0.00048249,0.000489483,0.000510461,0.000573394,0.000405572,0.000258727,0.000510461,0.000825129,0.000832121,0.000559409,0.00045452,0.000300682,0.000363616,0.000657306,0.000419557,0.000279705,0.000797158,0.000573394\nSRI-1052953-001.txt,COc1cc2nc(CSCC(=O)N[C@@H](C(C)C)C(O)=O)[nH]c(=O)c2cc1OC,0.350957035,0.36346406,0.377623996,0.393491939,0.410296532,0.429360103,0.449690906,0.471619522,0.494870467,0.520435487,0.546992253,0.574761154,0.604678839,0.635312786,0.668701583,0.702751545,0.739280874,0.776967239,0.81492909,0.85327662,0.889199881,0.922202999,0.950633065,0.973553428,0.989862147,0.999239661,1,0.991812582,0.972831657,0.942621957,0.899695864,0.845529978,0.781639467,0.711104255,0.63801254,0.56502,0.496225854,0.43441801,0.379464237,0.333210283,0.295413724,0.265407883,0.242008176,0.224228366,0.210856318,0.200668878,0.192916726,0.186795447,0.181842224,0.178161743,0.175307717,0.17285039,0.170872406,0.170139616,0.170172674,0.17080078,0.172007405,0.173842136,0.176029488,0.178282956,0.180756813,0.183324334,0.185875326,0.188542023,0.19155583,0.19489471,0.197996672,0.200591742,0.202927856,0.204768097,0.205302538,0.205401712,0.204553218,0.202949895,0.200613781,0.198239099,0.195765243,0.19304345,0.190321656,0.187621902,0.184960716,0.182426253,0.179924848,0.177621792,0.175511576,0.174541868,0.173869685,0.173781529,0.17413415,0.174602475,0.174641043,0.174079053,0.171946798,0.168850345,0.163968749,0.158442517,0.152684878,0.14653605,0.141064915,0.136613076,0.133274196,0.131075825,0.129026215,0.12708129,0.123648745,0.118166591,0.110662376,0.101461173,0.090480336,0.078678553,0.066645362,0.055317414,0.045267716,0.036898478,0.029498948,0.02352643,0.018485052,0.014573163,0.01204421,0.01000562,0.007917443,0.006683269,0.005917421,0.004754873,0.004187374,0.003559268,0.003008298,0.003019317,0.002286527,0.001922886,0.001559246,0.001526188,0.001228664,0.001074392,0.001553736,0.00111296,0.001272741,0.000727281,0.000573009,0.0007383,0.000771358,0.000628106,0.000606067,0.000705242,0.00055648,0.00055097,0.000490364,0.000402208,0.000314053,0.000214878,0.000126723,7.71E-05,7.16E-05,7.71E-05,0.000104684,0.000137743,0.000170801,0.000198349,0.000214878,0.000220388,0.000225898,0.000231408,0.000220388,0.00018182,0.000126723,8.26E-05,8.26E-05,3.31E-05,0,4.96E-05,0.00018182,0.000115704,0.000110194,0.000292014,0.000264466,0.000170801,0.000214878,0.000115704,0.000314053,0.000231408,0.000280995\nSRI-1053017-001.txt,COc1ccc(cc1NC(C)=O)S(=O)(=O)NCCc1c[nH]c2ccccc12,0.987394428,1,0.987394428,0.974788857,0.974788857,0.949577713,0.92436657,0.886549855,0.823521997,0.747888567,0.684860708,0.634438422,0.571410563,0.507122148,0.465523762,0.416362032,0.37728476,0.347031388,0.31929913,0.300390773,0.289045758,0.280221858,0.282742972,0.28400353,0.290306315,0.300390773,0.311735787,0.324341359,0.338207488,0.354594731,0.376024203,0.398714232,0.421278205,0.441068952,0.454178747,0.467792764,0.478633556,0.478885667,0.488844069,0.48821379,0.496659524,0.496533468,0.488718013,0.475482163,0.456321694,0.428967604,0.390016387,0.353964452,0.31576957,0.284759864,0.261817723,0.243161477,0.232446741,0.223748897,0.211647548,0.206857431,0.197907475,0.192991302,0.193873692,0.191226522,0.189461742,0.187444851,0.187192739,0.191352578,0.190848355,0.186310349,0.182654733,0.184293458,0.187192739,0.182402622,0.180007563,0.186058238,0.187318795,0.179377285,0.17332661,0.164250599,0.156056977,0.156813311,0.158956259,0.150006303,0.145342241,0.147485188,0.1389134,0.138661288,0.140426068,0.137526787,0.135005673,0.134123282,0.138661288,0.135509895,0.137652843,0.145468297,0.151518971,0.15214925,0.158956259,0.161477373,0.171309719,0.171939997,0.177864616,0.186436405,0.194125804,0.201310979,0.205470818,0.206353208,0.208748267,0.212655994,0.213412328,0.216941888,0.218580613,0.218328501,0.218580613,0.219715114,0.216563721,0.213790495,0.219084835,0.225513677,0.215807387,0.212403883,0.203201815,0.188075129,0.17773856,0.162359763,0.149754191,0.128450775,0.101726963,0.089121392,0.080297491,0.073490483,0.054582125,0.037816715,0.028740703,0.023698475,0.023320308,0.015504853,0.01411824,0.006807009,0.006933064,0.007563343,0.001134501,0.00617673,0.006428842,0.005924619,0.003907727,0.004538006,0.003655616,0.001890836,0.00264717,0.00264717,0.003277449,0.003655616,0.003277449,0.002899281,0.00264717,0.002016891,0.00176478,0.001638724,0.001386613,0.001134501,0.000756334,0.000630279,0.000252111,0.000630279,0.001386613,0.001890836,0.002142947,0.002395059,0.003277449,0.002016891,0.00176478,0.004285894,0.005420396,0.00529434,0.004916173,0.004033783,0.003907727,0.007185176,0.003781671,0.006050674,0.005042229,0.007563343,0\nSRI-002491.txt,OC(=O)C1=CC(=O)C2=CC=CC(Cl)=C2N1,0.752064592,0.760666455,0.75840842,0.752317694,0.744524855,0.73369298,0.724163678,0.716507333,0.712797576,0.713648181,0.72030206,0.733538406,0.753135757,0.778562596,0.808108675,0.840277075,0.872833263,0.90396756,0.931547576,0.949683261,0.964795276,0.981415963,0.993404877,1,0.999864409,0.990888317,0.97073143,0.936796737,0.887693081,0.823302949,0.745699069,0.659953429,0.572536411,0.509511223,0.451497462,0.383255655,0.326916888,0.282154841,0.247490671,0.220868828,0.200163251,0.183576914,0.169794589,0.157850872,0.147171762,0.137420092,0.128291234,0.12182899,0.115652389,0.107848703,0.100528622,0.093672261,0.08730945,0.081496232,0.076219049,0.071528521,0.067391202,0.063880312,0.061049181,0.058938489,0.057770603,0.057011296,0.056536729,0.056627122,0.057094458,0.057798625,0.058602224,0.059428423,0.060166939,0.060920822,0.061559906,0.062249609,0.063028803,0.063476252,0.064626059,0.06604524,0.067848594,0.070021658,0.072501157,0.075300649,0.07835234,0.081673404,0.08539672,0.089489746,0.094132365,0.096673332,0.10215842,0.108235588,0.114846078,0.121971812,0.129573016,0.137648788,0.146295848,0.155553969,0.165604842,0.176453892,0.18515338,0.194311164,0.207066617,0.220175508,0.233268129,0.24611036,0.258379494,0.270011353,0.280985147,0.291479853,0.301736824,0.309688756,0.318359319,0.329588022,0.341285868,0.356264101,0.373400936,0.390338904,0.406695641,0.420776265,0.431332439,0.437395143,0.438904718,0.437595817,0.432598855,0.424803303,0.416025173,0.407608617,0.401350662,0.397782824,0.397368821,0.399454203,0.402899106,0.405525947,0.406423556,0.404191736,0.395946928,0.380704745,0.358181351,0.3294452,0.296294221,0.260719787,0.224930216,0.190729766,0.174633363,0.144992371,0.119269041,0.097485971,0.079498532,0.065011137,0.053400972,0.044149179,0.036793845,0.03070583,0.02696082,0.023515013,0.019779946,0.01657549,0.013694643,0.011436609,0.009459699,0.007712389,0.006369139,0.005243738,0.004449177,0.003928509,0.003143892,0.002596107,0.002127867,0.001656012,0.001425508,0.00110913,0.000928343,0.000728573,0.000542362,0.00048451,0.000478183,0.000345304,0.000269373,0.000228696,0.000156381,0.000167228,9.85E-05,1.63E-05,0\nSRI-0000212.txt,NC1=CC2=C3C=CC=CC3=NC=C2C2=CC=CC=C12,0.606263208,0.593375486,0.583639346,0.577195485,0.574606685,0.573256007,0.570779763,0.564589155,0.554205815,0.540333224,0.526319936,0.515683345,0.51033691,0.510843414,0.515880319,0.522830684,0.528008284,0.530034302,0.528852458,0.526348075,0.524856701,0.526404354,0.531919623,0.542874187,0.559495972,0.581877837,0.6085875,0.639112829,0.670729957,0.701196194,0.729369093,0.756219451,0.783691685,0.814090389,0.848850657,0.887499754,0.927116836,0.962068451,0.98743025,1,0.999915583,0.990747854,0.977587182,0.964063516,0.954183867,0.947624635,0.941338353,0.929004972,0.906172881,0.869797426,0.82296547,0.769498307,0.714677652,0.664333933,0.622060516,0.589436007,0.566108668,0.551296229,0.543315971,0.538982545,0.535563641,0.529913303,0.51902346,0.50190924,0.47958084,0.453822279,0.427292706,0.401584796,0.379267651,0.36005988,0.343922088,0.331189132,0.321261646,0.314364745,0.310039761,0.308483667,0.308897312,0.31155646,0.315031642,0.318746008,0.321301041,0.322164912,0.320152964,0.315549402,0.308959218,0.300644105,0.291268146,0.281233732,0.270878532,0.260869443,0.251600413,0.243147418,0.235977567,0.229457731,0.223728604,0.217872851,0.211074436,0.202804346,0.19217901,0.178919851,0.163029684,0.144592925,0.124493144,0.104221714,0.084912642,0.067728075,0.05317733,0.041150665,0.031580547,0.024073027,0.017969649,0.013062185,0.009353447,0.006170911,0.003731249,0.001944414,0.000846988,0.000160393,0,0.000593736,0.001381631,0.002704171,0.004538842,0.006598626,0.00912552,0.011897225,0.014711138,0.017302752,0.019680508,0.022052637,0.02390982,0.025682585,0.027725486,0.02979934,0.032008262,0.03463927,0.037785225,0.041417987,0.045394046,0.050439393,0.055526947,0.061185727,0.067376336,0.074202889,0.081696339,0.089313602,0.095068054,0.098596702,0.103850277,0.115581481,0.130160365,0.144162397,0.155924553,0.16503319,0.172374689,0.179322241,0.186877598,0.195516311,0.205393146,0.217087769,0.230833734,0.247174128,0.267254212,0.292331805,0.321545851,0.349881956,0.373684847,0.395250677,0.416349398,0.43714703,0.458060032,0.478992732,0.500043616,0.520649901,0.540229109,0.559687318,0.578895089,0.598040954,0.616601525,0.635328116,0.65322179\nSRI-0000206.txt,NC1=CC=CC2=C1C(O)=C1C(=O)C3=CC=CC=C3C(=O)C1=C2O,0.29332697,0.28855484,0.284975742,0.282191999,0.280601288,0.280601288,0.280998966,0.283385031,0.286964129,0.29173626,0.298099101,0.305654975,0.314801559,0.325538853,0.338264535,0.352978605,0.369681063,0.389564941,0.412630239,0.439274636,0.469219757,0.502386065,0.538694027,0.576552931,0.616002545,0.656287282,0.696810626,0.73785095,0.779845701,0.822357433,0.864312415,0.904557385,0.940865346,0.970015112,0.990336435,1,0.999276227,0.989401893,0.971128609,0.946142528,0.916980832,0.885528513,0.854473873,0.825781436,0.800819216,0.780478008,0.764535115,0.752366182,0.743338901,0.73600175,0.727817546,0.717247276,0.700449376,0.676119462,0.643668973,0.604931202,0.562550704,0.518949336,0.477650521,0.439409846,0.405897558,0.376970492,0.35183727,0.330064424,0.311453114,0.294973356,0.280136006,0.266213314,0.253253002,0.240742066,0.228274875,0.216161616,0.204310825,0.193064503,0.182100533,0.171426867,0.161210531,0.151662292,0.142730454,0.133933826,0.125721785,0.118153981,0.111115088,0.104720433,0.098898433,0.09390758,0.08930645,0.085349559,0.082223813,0.079376442,0.076871073,0.074755428,0.073069275,0.071876243,0.070496302,0.069494154,0.068587449,0.067907421,0.067283067,0.066543387,0.065803706,0.065262865,0.064276625,0.063155174,0.062093375,0.06081683,0.059468703,0.057953551,0.056140142,0.054672711,0.052827487,0.051014078,0.04963016,0.047967868,0.046210133,0.044607492,0.043028712,0.040952835,0.039111588,0.036900501,0.034295713,0.0315239,0.028915136,0.025892786,0.023212439,0.020277579,0.01739044,0.014869164,0.012387656,0.010220313,0.008597789,0.006895729,0.005702696,0.004338662,0.003348445,0.002584904,0.001777619,0.001336197,0.000898751,0.000572656,0.000210769,8.35E-05,0,4.77E-05,0.000167025,0.000349956,0.000405631,0.000373817,0.000318142,0.00049312,0.000652191,0.0008391,0.000950449,0.001033962,0.001045892,0.001105544,0.001113497,0.001141335,0.001157242,0.001212917,0.001216893,0.001300406,0.001371988,0.001503221,0.001630478,0.001857154,0.002171319,0.002437763,0.002616718,0.002899069,0.003221188,0.003300724,0.003352422,0.003443888,0.003256979,0.00329277,0.003201304,0.003217211,0.003197328,0.00304621,0.002982582\nSRI-1053209-001.txt,Cc1ccc(cc1C)S(=O)(=O)NC(Cc1ccccc1)C(O)=O,0.901677514,0.909519185,0.920376883,0.934853813,0.951743565,0.968633317,0.983110248,0.994571151,1,0.998190384,0.989142302,0.970442934,0.943720933,0.907649248,0.864399419,0.813187277,0.756606608,0.694657409,0.629631864,0.562857022,0.495840899,0.430332788,0.367840706,0.310113946,0.258600201,0.213962999,0.176865865,0.146524632,0.122155132,0.103214482,0.088677231,0.078121136,0.07102744,0.066032899,0.062473987,0.06022403,0.059186517,0.059222709,0.059337319,0.058939203,0.057509606,0.056309227,0.055657765,0.056248907,0.056809888,0.056333355,0.054270393,0.050838154,0.047490364,0.044781971,0.041657367,0.037754628,0.03353219,0.030142176,0.028290335,0.027264886,0.025183827,0.021190607,0.016467508,0.012027916,0.0084871,0.005971734,0.004650714,0.003468431,0.002738553,0.001827712,0.001936289,0.001664847,0.001628655,0.001520078,0.001272763,0.001254667,0.001393405,0.001308956,0.00132102,0.001278796,0.001465789,0.001369276,0.001314988,0.001640719,0.001888033,0.001707071,0.002008674,0.002123283,0.002153443,0.002117251,0.002105187,0.002400758,0.002304245,0.002195668,0.002141379,0.001863905,0.002002642,0.002014706,0.001701039,0.001658815,0.001501982,0.001592462,0.001495949,0.001339116,0.000916872,0.001158154,0.000965129,0.00085052,0.001019417,0.000916872,0.000337795,0.000512725,0.000633366,0.000361923,0.000277474,0,0.000199058,0.000253346,0.000355891,0.00023525,0.000229218,0.000168898,0.000217154,0.000554949,0.000331763,0.000530821,0.000464468,0.000120641,0.00023525,0.000494628,0.000289539,0.000150801,0.000681622,0.000609237,0.000380019,0.000404148,0.00061527,0.000247314,0.000428276,0.000295571,0.000603205,0.000199058,0.000277474,0.000313667,0.000331763,0.000301603,0.000313667,0.000211122,0.000180962,0.000138737,0.000108577,9.05E-05,0.000120641,0.000138737,0.000126673,0.000120641,0.000138737,0.000144769,0.000138737,0.000138737,0.000144769,0.000138737,0.000132705,0.000132705,0.000144769,0.000156833,0.000168898,0.000186994,0.00020509,0.000247314,0.000386051,0.000355891,0.000313667,0.000241282,0.000361923,0.000138737,2.41E-05,0.000259378,0.000223186,6.64E-05,0.000217154,1.21E-05,0.000247314,0.000349859,0.000277474\nSRI-0000038.txt,COC1=CC=C(C=C1)C(O)OC1CC2CC1C=C2,0.352011494,0.317528736,0.290229885,0.262931034,0.234195402,0.215517241,0.208333333,0.284482759,0.359195402,0.426724138,0.505747126,0.576149425,0.655172414,0.721264368,0.793103448,0.853448276,0.908045977,0.956896552,0.985632184,1,0.98591954,0.943534483,0.889798851,0.821551724,0.75158046,0.697413793,0.65387931,0.624137931,0.605603448,0.596695402,0.598994253,0.607614943,0.626293103,0.642385057,0.661350575,0.684482759,0.701436782,0.719683908,0.729454023,0.743821839,0.742528736,0.742672414,0.725,0.694827586,0.670258621,0.637356322,0.599281609,0.555172414,0.506896552,0.4625,0.417097701,0.383764368,0.352586207,0.320402299,0.305747126,0.292097701,0.273132184,0.262068966,0.251724138,0.243821839,0.233477011,0.225574713,0.220833333,0.208333333,0.198563218,0.18908046,0.1875,0.177298851,0.163505747,0.161063218,0.150431034,0.14841954,0.129310345,0.123850575,0.118534483,0.104022989,0.096982759,0.093247126,0.08908046,0.08591954,0.075718391,0.071264368,0.067672414,0.064511494,0.059195402,0.05862069,0.051149425,0.044827586,0.044252874,0.043103448,0.033045977,0.025862069,0.024568966,0.017816092,0.01637931,0.017672414,0.018821839,0.014367816,0.012212644,0.009913793,0.008189655,0.011063218,0.004741379,0.012068966,0.01637931,0.008189655,0.006465517,0.00862069,0.009051724,0.005316092,0.009626437,0.00704023,0.004166667,0.002155172,0,0.003735632,0.004597701,0.004310345,0.002298851,0.00387931,0.010488506,0.009913793,0.004741379,0.012643678,0.001436782,0.002873563,0.002298851,0.001867816,0,0.002011494,0.005028736,0,0.001724138,0,0,0.004885057,0.004885057,0.000718391,0.001436782,0.004454023,0.003448276,0.006609195,0,0.006465517,0.003448276,0.006752874,0.01566092,0.018247126,0.011637931,0.00704023,0.008189655,0.008477011,0.007902299,0.007183908,0.006178161,0.005316092,0.006752874,0.011637931,0.016522989,0.021264368,0.025718391,0.030890805,0.036350575,0.041954023,0.046695402,0.048563218,0.049712644,0.053591954,0.054885057,0.054885057,0.056752874,0.062068966,0.067097701,0.064655172,0.066810345,0.073563218,0.08204023,0.084482759,0.084051724,0.083333333,0.08433908\nSRI-0000158.txt,CC1=CC(CCNC=O)=C(C)C=C1,1,0.929147325,0.852452225,0.770658282,0.685677562,0.596235354,0.503818821,0.412995677,0.328014957,0.252488342,0.191302223,0.14424415,0.109083377,0.08465142,0.068505083,0.057245138,0.04991555,0.045241611,0.041842382,0.039717864,0.037912024,0.036531087,0.03568128,0.03515015,0.035362602,0.034831473,0.034937699,0.035575054,0.036095561,0.036669181,0.037380894,0.038081985,0.039038018,0.040557049,0.041576817,0.042692189,0.04421122,0.046473831,0.047929126,0.049766834,0.052433104,0.05458949,0.057393854,0.060134482,0.06340624,0.066816091,0.071065127,0.076546384,0.081369039,0.085586208,0.087211464,0.087413293,0.086234186,0.084152158,0.082431298,0.082962428,0.086329789,0.090674428,0.091322406,0.08522504,0.073253381,0.060463782,0.050531661,0.043977523,0.040004674,0.037232178,0.036201787,0.035978712,0.034873963,0.034565908,0.034810227,0.035182018,0.03486334,0.035490073,0.035022679,0.035266999,0.034927076,0.034300343,0.03387544,0.034056024,0.033354933,0.033142481,0.032590106,0.031347263,0.03072053,0.030136288,0.029222745,0.028033015,0.027215076,0.025866007,0.025398613,0.023762734,0.022647362,0.021670084,0.020448486,0.019407472,0.018281477,0.01681556,0.016103846,0.015317775,0.014159912,0.013087031,0.012120375,0.010856287,0.009560331,0.009177918,0.008774259,0.007680133,0.006617874,0.006023009,0.005491879,0.004950127,0.004334017,0.003537322,0.003388606,0.002783119,0.001827085,0.001752727,0.002103273,0.001933311,0.001943934,0.001890821,0.001858953,0.001444672,0.001540276,0.002071405,0.001858953,0.002028915,0.001678369,0.001444672,0.001561521,0.001635879,0.001614634,0.001295956,0.001349069,0.00200767,0.00172086,0.00143405,0.001317201,0.001157862,0.001465917,0.001380937,0.001869576,0.00123222,0.001285333,0.001402182,0.001402182,0.001295956,0.001041014,0.000764826,0.000584242,0.000435526,0.000382413,0.000393036,0.000467394,0.000520507,0.000562997,0.000594865,0.00061611,0.000637355,0.000626733,0.00061611,0.000605488,0.000562997,0.000562997,0.000488639,0.000339923,0.000446149,0,0.000605488,0.000148716,5.31E-05,0.000308055,9.56E-05,0.000403658,0.000191207,0.000531129,0.000435526,0.000169961,5.31E-05,0.000339923\nSRI-0000164.txt,OC1=NC2=C(C=C(Cl)C=C2)N=N1,0.381023388,0.419514309,0.461898396,0.50777164,0.556105659,0.60730446,0.659825469,0.712860669,0.765418405,0.815148087,0.861792619,0.903405418,0.939362108,0.968524123,0.989091791,1,0.998641065,0.984831345,0.956881354,0.915929659,0.865024681,0.80783922,0.747495152,0.687048246,0.628805019,0.572706705,0.520743962,0.472061027,0.427370424,0.386697861,0.349712787,0.316187489,0.285130311,0.256431069,0.230210966,0.206194541,0.184539725,0.165951695,0.150081536,0.136080831,0.123545572,0.111417994,0.099062702,0.086846977,0.075597197,0.065923048,0.057850238,0.051995798,0.047974085,0.045428836,0.04430496,0.044360052,0.045186431,0.04702283,0.049402803,0.05239246,0.055624523,0.059308339,0.063172122,0.067498678,0.071931745,0.076478668,0.081326761,0.086101399,0.090780543,0.095768202,0.100506112,0.10517791,0.10973218,0.114227684,0.118535876,0.122542898,0.125987983,0.129447758,0.132397015,0.13487248,0.137223071,0.139055797,0.140344949,0.141303549,0.141725921,0.141847123,0.141542281,0.14066081,0.139316566,0.137465476,0.135114885,0.132242757,0.12886011,0.125080802,0.120937886,0.116368925,0.111495123,0.106448698,0.101064377,0.095647,0.090240642,0.084793883,0.079181848,0.073646941,0.067924722,0.062129047,0.056348064,0.050747047,0.044951372,0.039210789,0.033657519,0.028225451,0.023421432,0.018760651,0.014705882,0.011194688,0.008164629,0.005817712,0.003856438,0.002387319,0.001215696,0.000422372,6.24E-05,0,0.000205677,0.000290151,0.000881471,0.001480138,0.00219266,0.00326879,0.00416128,0.005200682,0.006181319,0.007158283,0.008105865,0.009244432,0.01063275,0.011738262,0.013045778,0.014577334,0.015950961,0.01730255,0.018661486,0.020101222,0.021632779,0.02297335,0.024637128,0.026337633,0.028012429,0.029621114,0.030748663,0.031442822,0.032350003,0.034439825,0.037014456,0.039416466,0.041318975,0.042736675,0.043798114,0.044778751,0.045774079,0.046824499,0.048018158,0.049347711,0.050853558,0.052579773,0.054596139,0.056972439,0.059466269,0.061596492,0.06323456,0.064696333,0.065934066,0.067281983,0.068552771,0.06974643,0.070995181,0.072199859,0.073085003,0.074087677,0.075123406,0.075788182,0.076592525,0.077022242,0.077613563\nSRI-0000428.txt,CCCC1OC(OCC1CC)C1=CC=C(OC)C=C1,0.889752494,0.931095309,0.961413373,0.983462874,1,0.997243812,0.980706687,0.947632435,0.900777245,0.837384929,0.7546993,0.663745108,0.561766165,0.457031035,0.35780828,0.269610275,0.197949396,0.142825644,0.097899785,0.068408577,0.049666501,0.036436801,0.029270713,0.023758337,0.021553387,0.020175294,0.020726531,0.020450912,0.021553387,0.022931481,0.024585194,0.026790144,0.028719475,0.0320269,0.035609944,0.037539276,0.040598644,0.043878507,0.048453779,0.05170608,0.055702552,0.059947081,0.064549915,0.069070062,0.074196571,0.078716719,0.082906124,0.08695772,0.092497657,0.096108263,0.099360564,0.103164103,0.105947853,0.108428422,0.107022766,0.103246789,0.09767929,0.092304724,0.090706135,0.090651012,0.090292707,0.084339342,0.071964059,0.058431178,0.041756243,0.029188027,0.020230417,0.014056557,0.011631112,0.00983959,0.008599305,0.007000717,0.00573287,0.003913786,0.003610606,0.004189405,0.00352792,0.002838873,0.004161843,0.004244529,0.003334987,0.003472796,0.003638168,0.003610606,0.002122264,0.003114492,0.003169616,0.003031806,0.00264594,0.003472796,0.003279863,0.002756188,0.00220495,0.001405656,0.001956893,0.002067141,0.002701064,0.001653713,0.001295408,0.001956893,0.001901769,0.001846646,0.002094703,0.002921559,0.00220495,0.002921559,0.002012017,0.001295408,0.001874208,0.002535693,0.001515903,0.002012017,0.002067141,0.003362549,0.001929331,0.002039579,0.002067141,0.001846646,0.001901769,0.000937104,0.002094703,0.003031806,0.003252301,0.002811311,0.002728626,0.001984455,0.000992228,0.001791522,0.003169616,0.003142054,0.002563255,0.002701064,0.001626151,0.001984455,0.002756188,0.002480569,0.002590816,0.001874208,0.001598589,0.001598589,0.001984455,0.000606361,0.002315198,0.002287636,0.001571027,0.001405656,0.001212723,0.001295408,0.00132297,0.001433218,0.001433218,0.001460779,0.001515903,0.001571027,0.001515903,0.001460779,0.001433218,0.001460779,0.001488341,0.001488341,0.001460779,0.001543465,0.001626151,0.001681274,0.00176396,0.001708836,0.001736398,0.00176396,0.001515903,0.001571027,0.002673502,0.002701064,0,0.001543465,0.001102475,0.001488341,0.001571027,0.001571027,0.001350532,0.001019789,0.001488341\nSRI-1053023-001.txt,O=C(CS(=O)(=O)CCCN1C(=O)c2ccccc2C1=O)Nc1ccccc1,0.998214098,1,0.988575119,0.958801929,0.909970961,0.846387952,0.777129199,0.711344393,0.65439124,0.610330832,0.581927649,0.566808642,0.559983071,0.554454113,0.546038355,0.534686868,0.523702346,0.515653555,0.512204072,0.513207113,0.51751285,0.521011261,0.514870693,0.494051478,0.461195772,0.424425759,0.392132734,0.367227962,0.349148761,0.336341641,0.326873913,0.319321749,0.312471713,0.305367248,0.298152692,0.290304509,0.281827589,0.272900525,0.263608941,0.2535663,0.243097978,0.232453511,0.221317311,0.210063681,0.198761122,0.187485474,0.176410435,0.165773308,0.155723327,0.14624826,0.137597644,0.12960512,0.122236439,0.115281206,0.108646457,0.102637998,0.096866843,0.091377028,0.086271305,0.081635299,0.077559528,0.074029313,0.070689921,0.067350529,0.064069851,0.060967763,0.058239981,0.056025952,0.054604569,0.053682261,0.052999704,0.052715917,0.052593595,0.052691452,0.052835792,0.052977686,0.05293365,0.052698792,0.052429683,0.051999109,0.051485357,0.050670692,0.049924527,0.048720878,0.047284817,0.045726434,0.043867139,0.041716717,0.039206668,0.036496011,0.033648353,0.030693052,0.02778668,0.024819147,0.022123169,0.019493244,0.017066374,0.014791184,0.012851156,0.010918467,0.009435924,0.008068363,0.006703249,0.005768709,0.004917347,0.004286165,0.003493518,0.003126552,0.002737568,0.002324119,0.002143083,0.001798134,0.001741866,0.00155349,0.001533919,0.001303953,0.001103345,0.001091113,0.000910076,0.000826897,0.00083179,0.000709468,0.00061895,0.000623843,0.000685004,0.000565128,0.000633628,0.000621396,0.000540664,0.000494181,0.000452592,0.000479502,0.000584699,0.000565128,0.00046727,0.000428127,0.000362073,0.00017859,0.000227519,0.000237305,0.000291127,0.00021284,0.000190822,0.00025443,0.000207948,0.00018593,0.000181037,0.000200608,0.000217733,0.000200608,0.000156572,0.000122322,8.32E-05,5.87E-05,3.67E-05,2.45E-05,1.96E-05,1.96E-05,1.96E-05,2.94E-05,4.16E-05,5.63E-05,7.58E-05,9.05E-05,9.3E-05,7.58E-05,8.32E-05,0.000124769,0.000119876,5.38E-05,7.83E-05,6.12E-05,2.45E-05,8.07E-05,0.000122322,0.000112536,0,0.000141894,9.79E-06,2.94E-05,0.000127215\nSRI-1053345-001.txt,COc1ccc(cc1)S(=O)(=O)N1CCC[C@H]1C(O)=O,0.545454545,0.579545455,0.588068182,0.596590909,0.590909091,0.610795455,0.585227273,0.590909091,0.639204545,0.673295455,0.732954545,0.769886364,0.801136364,0.846590909,0.872159091,0.897727273,0.928977273,0.957386364,0.963068182,0.977272727,0.988636364,0.988636364,1,0.977272727,0.963068182,0.946022727,0.911931818,0.860795455,0.822443182,0.775,0.729545455,0.677556818,0.611931818,0.556534091,0.507670455,0.450284091,0.407386364,0.377840909,0.331818182,0.303693182,0.279829545,0.254261364,0.242613636,0.228409091,0.199715909,0.210227273,0.191193182,0.182954545,0.161079545,0.155681818,0.151704545,0.139488636,0.134090909,0.136079545,0.126988636,0.123579545,0.123011364,0.111647727,0.110795455,0.099431818,0.090056818,0.096306818,0.096022727,0.071875,0.068465909,0.060511364,0.055113636,0.045454545,0.048579545,0.067897727,0.067897727,0.073863636,0.090056818,0.090625,0.095454545,0.092897727,0.107386364,0.111647727,0.1125,0.116761364,0.130681818,0.133806818,0.146875,0.1375,0.140340909,0.154261364,0.146306818,0.14375,0.154829545,0.157670455,0.152840909,0.144318182,0.142329545,0.141761364,0.148579545,0.139204545,0.126704545,0.116477273,0.105681818,0.110227273,0.100284091,0.079261364,0.071875,0.069886364,0.063636364,0.039204545,0.039488636,0.038068182,0.015625,0.026136364,0.015909091,0.004545455,0.012215909,0.007102273,0.009943182,0.010227273,0.015056818,0.008522727,0.009375,0.018181818,0.017897727,0.014772727,0.00625,0,0.005397727,0.021306818,0.023011364,0.023579545,0.011647727,0.013068182,0.006534091,0.005397727,0.015909091,0.007954545,0.011079545,0,0.011363636,0.007102273,0.001420455,0.012215909,0.006534091,0.0125,0.01875,0.013636364,0.001136364,0.001136364,0.001704545,0.002556818,0.003409091,0.003693182,0.003977273,0.004545455,0.005681818,0.00625,0.006534091,0.006818182,0.006534091,0.006534091,0.006818182,0.006534091,0.006534091,0.006818182,0.006818182,0.006534091,0.007102273,0.009375,0.015625,0.025568182,0.017329545,0.004545455,0.007670455,0.007102273,0.016477273,0.018181818,0.010511364,0.000568182,0.014488636,0.0125,0.002840909,0.005965909,0.013920455\nSRI-1052993-001.txt,CC(C)[C@H](N1Cc2ccccc2C1=O)C(=O)NCCc1c[nH]c2ccc(F)cc12,0.9944625,1,1,0.992332693,0.975720194,0.950588466,0.917363469,0.876897126,0.828763476,0.772706943,0.70889791,0.640914454,0.571354941,0.5076311,0.452170913,0.407657936,0.373240247,0.348023326,0.329792173,0.31688554,0.308110733,0.302530637,0.298654388,0.295587465,0.293500253,0.292051984,0.290944484,0.290049965,0.288942465,0.288133139,0.287068235,0.285828687,0.28391186,0.282267649,0.280546764,0.278685312,0.276794043,0.274689794,0.272134025,0.269884948,0.267750881,0.265506064,0.263252727,0.260995131,0.258711978,0.256684401,0.254584411,0.25325967,0.252126613,0.251658055,0.251572863,0.251841219,0.252084017,0.251862517,0.250925401,0.248348334,0.244800075,0.240932345,0.238010249,0.236412893,0.235377807,0.232983903,0.228153499,0.221142173,0.213372635,0.20634853,0.200921781,0.196811252,0.193109647,0.189365445,0.185195282,0.180714167,0.175521696,0.170197178,0.16442114,0.158517313,0.152724237,0.146854487,0.140401171,0.132870171,0.123469201,0.112705154,0.100735636,0.088203848,0.075987272,0.06461836,0.054186563,0.044977275,0.037109766,0.030413651,0.024637613,0.019773133,0.016058749,0.012932191,0.010410499,0.008276432,0.00652573,0.005132836,0.004174423,0.003411952,0.002755971,0.002172404,0.001955163,0.001610134,0.001448269,0.001171394,0.001060644,0.000907298,0.000805067,0.000638942,0.0006645,0.000839144,0.00066024,0.0006645,0.000540971,0.000434481,0.000357808,0.0002215,0.000255577,0.000238538,0.000340769,0.000374846,0.000468558,0.000306692,0.000302433,0.000477077,0.00043874,0.000285394,0.000187423,0.000306692,0.000251317,0.000315212,0.000212981,0.000234279,0.000127788,0.0002215,0.000396144,0.000247058,5.96E-05,0.000153346,0.000251317,0.000102231,0.00021724,0.000383365,0.000191683,9.8E-05,0.00011075,8.52E-05,0.000119269,0.000153346,0.000166125,0.000170385,0.000144827,0.00011075,8.09E-05,5.96E-05,3.83E-05,1.7E-05,0,8.52E-06,2.56E-05,3.83E-05,5.11E-05,6.82E-05,7.24E-05,6.82E-05,8.09E-05,0.000157606,0.000200202,0.000140567,0.000157606,0.000140567,0.000247058,4.26E-06,8.09E-05,0.000255577,0.000127788,0.000157606,0.000200202,0.000200202,9.37E-05\nSRI-1053180-001.txt,OC(=O)CNS(=O)(=O)c1ccc(Oc2ccccc2Cl)cc1,0.745553884,0.725249878,0.705868781,0.689717867,0.677720045,0.672182588,0.674212989,0.683488228,0.700239034,0.723081041,0.750399158,0.781870368,0.814172196,0.847350789,0.880298653,0.911585281,0.939318708,0.963452789,0.981864831,0.994370253,1,0.998108036,0.988279051,0.969682427,0.943241073,0.908170517,0.866731886,0.817356234,0.763550617,0.707059334,0.649682058,0.593850655,0.541784722,0.492422914,0.44739878,0.406536967,0.370358919,0.33853239,0.310489788,0.28587118,0.264445839,0.245157033,0.227557151,0.211738484,0.197114985,0.184632636,0.174079167,0.16554687,0.157392966,0.148717617,0.140116102,0.131685325,0.1234299,0.115815898,0.108474154,0.100707871,0.092752393,0.085327587,0.078844148,0.072854466,0.066993992,0.060335201,0.053265715,0.046371582,0.039800467,0.033404705,0.027821103,0.023280389,0.019487232,0.016556994,0.014102055,0.012491578,0.011171818,0.010013567,0.009390603,0.008873774,0.008236966,0.007877032,0.007673991,0.007309442,0.006940279,0.006815686,0.006534198,0.006252711,0.006031213,0.005495925,0.005112918,0.005006783,0.004900649,0.004540714,0.004263841,0.004162321,0.004134634,0.00401927,0.004010041,0.003950052,0.00361319,0.003290172,0.003119434,0.002741041,0.002348804,0.001919652,0.001767371,0.001545873,0.001412051,0.001047502,0.00086292,0.000858306,0.000885993,0.000549131,0.000378393,0.000470684,0.000267644,0.000424538,0.000286102,0.000258415,0.000230727,0.000166124,0.000184582,0.000170738,0.000133822,0.000189196,0.000147666,0.000147666,0.000175353,0.000267644,0.000119978,0.000115364,0.000161509,0.000230727,0.000286102,9.23E-05,0.000489142,0.000438382,0.000442997,0.000447611,0.000373778,0.000147666,0.00030456,0.000299946,0.000276873,0.000175353,0.000281487,0.000212269,0.000179967,0.000221498,0.000235342,0.000221498,0.00020304,0.000184582,0.000147666,0.000133822,0.000115364,9.23E-05,6.46E-05,4.15E-05,2.77E-05,9.23E-06,9.23E-06,1.85E-05,2.77E-05,3.69E-05,4.15E-05,6.46E-05,0.000119978,0.000156895,0.000193811,0.00015228,0.000129207,0.000263029,8.77E-05,0.000318404,0.000198426,5.54E-05,0,9.23E-05,9.23E-05,4.61E-06,0.000272258,0.000309175,0.000235342\nSRI-0000249.txt,NC(=O)C1=CN=CC(Br)=C1,1,0.981115329,0.962230657,0.940702132,0.916529753,0.887825052,0.856854191,0.821351009,0.7816932,0.738258456,0.691802164,0.643835099,0.59407399,0.544879421,0.49672351,0.451117028,0.407965554,0.368685438,0.333257795,0.301210507,0.272779635,0.247861311,0.22594565,0.206891017,0.190480237,0.176241195,0.163862293,0.153475724,0.144703794,0.137650369,0.131701698,0.127188261,0.123722924,0.12180613,0.121126282,0.121456764,0.122467093,0.124213926,0.127575397,0.131824448,0.136743905,0.142805884,0.149670462,0.156195116,0.164542141,0.173257417,0.182633656,0.192274281,0.201990444,0.211952108,0.221649387,0.230610164,0.23957094,0.248191793,0.255849527,0.262751874,0.268200102,0.272156441,0.274469813,0.274073235,0.271051687,0.266245538,0.259919174,0.252006496,0.242328102,0.230865107,0.217551414,0.202283157,0.185230299,0.165967934,0.145629143,0.125356448,0.105357581,0.087275508,0.070845844,0.056096916,0.043887976,0.03464393,0.026750137,0.020291579,0.015948105,0.012473325,0.009555644,0.007714388,0.00586369,0.005127188,0.003795819,0.003097086,0.002672181,0.002370026,0.001935679,0.001284158,0.001501331,0.001114196,0.001076426,0.000736502,0.001029215,0.001104753,0.000774272,0.000764829,0.000793156,0.000670406,0.000575982,0.000339924,0,0.000330482,0.00088758,0.000689291,0.000226616,0.000557098,0.000557098,0.000321039,0.001048099,0.000821483,0.000868695,0.000594867,0.001000888,0.000434347,0.001019772,0.000802599,0.000623194,0.000472117,0.00028327,0.000462674,0.000906464,0.000944234,0.001378581,0.001048099,0.000217174,0.000575982,0.000538213,0.000764829,0.001246388,0.001057542,0.000462674,0.000349366,0.000812041,0.001019772,0.000500444,0.00113308,0.001038657,0.000868695,0.000679848,0.001114196,0.000736502,0.000594867,0.000642079,0.000642079,0.000613752,0.000575982,0.000538213,0.000538213,0.000538213,0.000519328,0.000538213,0.000528771,0.000538213,0.000547655,0.00056654,0.00056654,0.000585425,0.000585425,0.000575982,0.000585425,0.000623194,0.000717618,0.000878137,0.000736502,0.000679848,0.000840368,0.001199177,0.001151965,0.000783714,0.000755387,0.000651521,0.000698733,0.000660963,0.00056654,0.000453232,0.000906464,0.000689291\nSRI-1053202-001.txt,COc1ccc(cc1)S(=O)(=O)N[C@@H](Cc1ccccc1)C(O)=O,0.387591408,0.373715611,0.367626653,0.368504868,0.37699428,0.391865387,0.41311819,0.440577046,0.474007763,0.51147827,0.552695827,0.596957863,0.643327615,0.690809773,0.738701764,0.786066826,0.830914339,0.872834468,0.910363522,0.942389096,0.968442808,0.987412252,0.997950832,1,0.991569136,0.974180479,0.946955814,0.910831904,0.86627713,0.81319196,0.754175912,0.689855446,0.623942483,0.557912424,0.495313259,0.437269103,0.385413434,0.340934772,0.302410407,0.269740809,0.242685933,0.220080679,0.201790388,0.18680804,0.174015375,0.162528322,0.151819954,0.141691208,0.133078846,0.125760388,0.119530916,0.113746407,0.10776869,0.101041563,0.093512333,0.08505805,0.076392995,0.068313417,0.0618439,0.057218635,0.054373218,0.051615623,0.047593398,0.041633246,0.034771459,0.027745739,0.021112289,0.015831289,0.012078384,0.00940861,0.007558504,0.006112376,0.004906294,0.00388171,0.003530424,0.002658064,0.002599516,0.002189683,0.001820832,0.001522239,0.001656899,0.001697882,0.001481256,0.001235356,0.001012875,0.001065568,0.001036294,0.000731846,0.000860651,0.000766974,0.000556203,0.000825522,0.000673298,0.000497655,0.000649879,0.000702572,0.000597186,0.000591331,0.000714282,0.000374705,0.000468381,0.00050351,0.000409834,0.000439107,0.000532784,0.000398124,0.000409834,0.000567912,0.000298593,0.000421543,0.000433253,0.000462527,0.000310303,0.000193207,0.000544493,0.000386415,0.000199062,0.00038056,0.00050351,0.000409834,0.000573767,0.000251755,0.000234191,0.000702572,0.000351286,0.000433253,0.000485946,0.000327867,0.000292738,0.00038056,0.000386415,0.000169788,0.000421543,0.000398124,0.000374705,0.000427398,0.000591331,4.68E-05,7.61E-05,0.000474236,0.000345431,0.000292738,0.000251755,0.00012295,0.000105386,0.000181498,0.000193207,0.000128805,6.44E-05,7.61E-05,7.61E-05,6.44E-05,4.1E-05,3.51E-05,2.34E-05,1.76E-05,5.85E-06,5.85E-06,0,0,5.85E-06,1.17E-05,1.76E-05,5.27E-05,0.000128805,0.0002459,0.000351286,0.000269319,0.00012295,0.00012295,0.000152224,0.000392269,0.000310303,3.51E-05,0.000111241,0.000210772,0.000281029,0.000111241,0.000193207,0.00050351,0.000169788\nSRI-0000248.txt,CSC1=[N+]([O-])C2=C(C=CC=C2)[N+]([O-])=C1C,0.295664419,0.300319452,0.3106769,0.325689381,0.345415083,0.370843201,0.401275479,0.437119233,0.477792583,0.523062779,0.571358746,0.621458538,0.672489337,0.724218391,0.774609123,0.821392204,0.865033138,0.903786287,0.935149572,0.959646683,0.975648359,0.982398157,0.980123009,0.967827903,0.948044013,0.923482896,0.896931751,0.871980775,0.852976603,0.84225257,0.840192718,0.846820322,0.862141199,0.883327418,0.907684878,0.934777169,0.959704871,0.980315029,0.994687444,1,0.99244139,0.970853675,0.933537767,0.88052276,0.812908406,0.73413943,0.647177595,0.559412768,0.475505798,0.400827432,0.340085071,0.29377913,0.262392571,0.244011009,0.236562956,0.23779654,0.245326056,0.25753388,0.272668556,0.289321936,0.306859773,0.323903012,0.33999197,0.354248009,0.365804128,0.37411918,0.378797489,0.379379368,0.375818268,0.367875618,0.356272948,0.341440849,0.324502348,0.305736746,0.286237977,0.266698476,0.246687653,0.228183897,0.210582054,0.194027593,0.179195494,0.165439872,0.153261142,0.142368364,0.132627708,0.124533769,0.117044985,0.110638496,0.105040819,0.099914464,0.09555037,0.091320109,0.087665908,0.08400007,0.080753184,0.078059084,0.075405715,0.073415689,0.071582769,0.070523749,0.069517099,0.069284347,0.069517099,0.06989532,0.07080887,0.07205991,0.073805548,0.076156339,0.078670057,0.08178311,0.085280204,0.089481371,0.094852115,0.100257772,0.10662353,0.114065764,0.122473917,0.131399943,0.141478089,0.152557068,0.163793154,0.17603589,0.188941969,0.202360102,0.216203006,0.230232112,0.244453237,0.258319417,0.27149316,0.284812373,0.297718452,0.310543068,0.324822381,0.33950901,0.35433529,0.369842369,0.386321186,0.403015298,0.419523208,0.436322058,0.452870701,0.468255585,0.481848281,0.49441687,0.504314634,0.511634673,0.515754377,0.517564021,0.518279733,0.517115974,0.515870753,0.514491699,0.511972163,0.509260606,0.506217378,0.503238157,0.500235661,0.497215708,0.492386112,0.486311294,0.478438469,0.470571463,0.460307116,0.446417661,0.428856549,0.409479975,0.389451695,0.367829067,0.343867285,0.31813659,0.290910466,0.261182262,0.230040091,0.199212136,0.168331811,0.137852982,0.108049134,0.078181279,0.05035,0.0246484,0\nSRI-1053164-001.txt,CC(C)[C@H](NC(=O)[C@H](C(C)C)n1nnc2ccccc2c1=O)C(O)=O,0.992244715,0.994183536,0.996651127,0.999911872,1,0.996915511,0.988102687,0.972856501,0.95232262,0.926765429,0.897859365,0.865692556,0.830617515,0.790871676,0.743899322,0.688026015,0.628275066,0.56632091,0.507980013,0.455279322,0.410686431,0.374553851,0.345912171,0.323527597,0.30634259,0.293035225,0.282107323,0.272351526,0.262851301,0.253245323,0.244291493,0.235681364,0.227644068,0.220470429,0.213869623,0.207409823,0.199645724,0.191485049,0.183024738,0.174220726,0.165628222,0.15863084,0.15401292,0.151571767,0.151439575,0.153598717,0.157441108,0.162755241,0.169444175,0.177181835,0.185642146,0.194825109,0.204008073,0.213305602,0.222779389,0.232711442,0.242290982,0.251870522,0.261229742,0.269945625,0.278423562,0.286170035,0.293149792,0.298966256,0.30391025,0.307673326,0.31043174,0.311392338,0.311815354,0.310845943,0.309876532,0.307232685,0.304130571,0.299882789,0.29501811,0.289668726,0.284090208,0.280001058,0.276158666,0.272536595,0.26980462,0.266693693,0.262613355,0.257695799,0.251306501,0.243084136,0.233874735,0.224339258,0.214645152,0.205726573,0.19769809,0.191608429,0.187466401,0.184734426,0.183112866,0.181138793,0.177939738,0.171435873,0.16134519,0.148143579,0.132430313,0.116064898,0.100016744,0.084938002,0.071198809,0.059477752,0.050180222,0.04237206,0.036035639,0.03042187,0.026359158,0.02302791,0.021335848,0.019141455,0.017801905,0.016717928,0.016189158,0.015633951,0.014638101,0.013695129,0.012910788,0.01263759,0.01201188,0.011245164,0.011033656,0.010178812,0.009526663,0.009394471,0.009385658,0.009279904,0.008345745,0.008460311,0.008689445,0.008398622,0.008918578,0.008645381,0.008636568,0.008239991,0.008266429,0.008380996,0.008037296,0.007993232,0.008257616,0.008372183,0.008187114,0.007861039,0.007764098,0.007684783,0.00761428,0.007482088,0.007297019,0.007094324,0.006935693,0.0068035,0.006680121,0.006565554,0.006415736,0.006274731,0.006107287,0.005913405,0.00571071,0.005463951,0.005164315,0.004838241,0.004459289,0.004265407,0.004115589,0.003551568,0.003207868,0.002626222,0.002599783,0.002053388,0.002000511,0.00162156,0.001930009,0.001330736,0.0010311,0.000784341,0.000837218,0.000193882,0\nSRI-005005.txt,CCCCSCCNS(=O)(=O)C1=CC(N)=CC=C1,1,0.944453315,0.886753856,0.844753888,0.805667504,0.758860498,0.719301554,0.686440959,0.661777833,0.644591011,0.635347696,0.634021099,0.64037119,0.653482852,0.671749811,0.693528287,0.7168466,0.740339579,0.762425593,0.777819688,0.791411411,0.807365934,0.820016824,0.829132622,0.834572955,0.835719529,0.832151219,0.822911119,0.807420584,0.785031316,0.75536827,0.718536457,0.675191676,0.639249262,0.600387906,0.546234255,0.490558982,0.435216965,0.381781262,0.331605257,0.285655503,0.244397057,0.208005658,0.176369861,0.149230349,0.126348162,0.107444694,0.095597478,0.08600269,0.075984634,0.069048397,0.064925017,0.063223373,0.063559844,0.065562598,0.068873732,0.073200709,0.078328145,0.084117808,0.090491473,0.095567474,0.10092101,0.10833945,0.116085789,0.124087161,0.132238552,0.14051853,0.148886377,0.157317446,0.165790306,0.174301742,0.182818536,0.191247462,0.195439422,0.203717257,0.211787209,0.21950783,0.226812685,0.233554969,0.239715392,0.245148224,0.249718446,0.253477494,0.25628285,0.258045574,0.258615646,0.259021769,0.258311322,0.256706118,0.254038994,0.250439609,0.245949754,0.240587646,0.234479729,0.227636718,0.220096119,0.214101788,0.207796703,0.199038807,0.189930509,0.180480382,0.170843803,0.161001484,0.151034863,0.141030738,0.131008396,0.12104499,0.113535466,0.106308836,0.097053734,0.088199397,0.07939971,0.070798262,0.062253607,0.054389396,0.047329929,0.040913402,0.03506266,0.031140734,0.027511345,0.023173652,0.019486399,0.016242774,0.013456706,0.01112391,0.009249744,0.007581318,0.006210787,0.005114577,0.004559507,0.003867276,0.003240411,0.0027057,0.002266359,0.001889168,0.00163735,0.001416608,0.001231228,0.001037274,0.000941905,0.000854037,0.000775813,0.000717948,0.000566858,0.000574359,0.000542212,0.00043184,0.000523995,0.000481132,0.000318255,0.000519709,0.00034933,0.000473631,0.000354688,0.000319326,0.000418982,0.000312897,0.000267891,0.000350402,0.000320398,0.000262533,0.000256104,0.000236816,0.000287179,0.000203597,0.000237887,0.000155377,0.000167164,0.000150019,0.000121087,0.000176808,0.000100727,0.000135017,8.79E-05,5.46E-05,0.000172522,0,0.000267891,0.000131802,6.43E-05,0.000201454\nSRI-004864.txt,CCOC(=O)C1=CC(=O)C2=CC=CC(C)=C2N1,0.622121601,0.624142937,0.620470773,0.616053373,0.611603059,0.606586432,0.603345543,0.60190149,0.603240045,0.607626217,0.615976571,0.628281822,0.64433182,0.66337542,0.685048867,0.709125973,0.735502929,0.763639586,0.792454805,0.813870837,0.834349206,0.860456932,0.884933241,0.908025421,0.930319194,0.951737758,0.971502118,0.987937815,0.9987239,1,0.986346066,0.952776699,0.897385345,0.843609372,0.781013791,0.692821093,0.605773678,0.526142329,0.457242206,0.400156981,0.354397988,0.318510204,0.290685819,0.268920379,0.251416201,0.236731766,0.22371757,0.214502135,0.205560151,0.193726685,0.181903347,0.170110393,0.158554597,0.147392941,0.136748645,0.126693449,0.117250983,0.108390021,0.100142633,0.092507976,0.087307361,0.082543085,0.076906976,0.0721638,0.068421586,0.065525041,0.063450534,0.062096788,0.061327921,0.061041811,0.061120301,0.061488277,0.062033489,0.062371926,0.063142481,0.06401347,0.064932566,0.065965599,0.067088095,0.068279797,0.069705282,0.071317286,0.073226373,0.075490775,0.078149317,0.079626285,0.082954104,0.086681971,0.090926354,0.09559104,0.100665057,0.106085951,0.111847813,0.117906757,0.12428557,0.130874534,0.135881876,0.14109937,0.148236079,0.155630201,0.163286802,0.171246392,0.179631349,0.188395253,0.197588745,0.207241362,0.217250983,0.225031649,0.233073106,0.242851476,0.251900646,0.262168526,0.272553719,0.281655217,0.290310248,0.298422598,0.305968638,0.313237007,0.318539743,0.323913374,0.331061898,0.338183414,0.345259356,0.351898115,0.358020357,0.363130665,0.367023952,0.369211552,0.369543237,0.368679,0.366597742,0.362302719,0.356478403,0.34962696,0.341956012,0.333862228,0.325745658,0.317811387,0.310067012,0.302649258,0.299036173,0.291829414,0.284522222,0.276952551,0.268702632,0.259677093,0.249748493,0.238606249,0.226403119,0.212978749,0.2022087,0.190915382,0.175087352,0.158903162,0.1425046,0.126440255,0.111256182,0.096970106,0.083771922,0.071805952,0.063567848,0.056074979,0.047040157,0.039072971,0.032118563,0.026079874,0.021159462,0.01703408,0.013534932,0.010710126,0.008363013,0.007422818,0.005736543,0.004381952,0.003213038,0.002356397,0.001665176,0.001042317,0.000715696,0.000301301,0\nSRI-1053270-001.txt,Cc1ccc(cc1)S(=O)(=O)NC[C@H]1CC[C@@H](CC1)C(O)=O,0.746482469,0.794593852,0.840054199,0.882568951,0.920959871,0.952772296,0.977711666,0.993912437,1,0.995876167,0.980460887,0.954736026,0.918996141,0.87392854,0.8204169,0.761406816,0.696996475,0.62934598,0.560517246,0.491590327,0.425510815,0.363849696,0.30798158,0.257906468,0.215097156,0.17827722,0.147937593,0.123096409,0.10375367,0.08804383,0.075819612,0.066540988,0.059844669,0.055043349,0.051862107,0.049348533,0.0482783,0.047492808,0.046422575,0.044949778,0.043103871,0.042927136,0.043221695,0.044291928,0.044920322,0.044095555,0.041739079,0.03897022,0.036800298,0.035180221,0.032872839,0.03031999,0.027423488,0.025567763,0.024684085,0.023378205,0.020678076,0.016082948,0.011664556,0.008178935,0.005940283,0.004703133,0.003377615,0.003151787,0.003033963,0.002582305,0.002739403,0.002641217,0.00290632,0.002513574,0.002169922,0.002916139,0.003063419,0.003357978,0.002867046,0.003328522,0.00371145,0.003770361,0.003868548,0.003986372,0.004241657,0.003898004,0.003937278,0.004212201,0.004830776,0.004742408,0.004889687,0.004585309,0.004683496,0.004791501,0.004830776,0.004624584,0.00414347,0.004369299,0.004477304,0.003868548,0.003898004,0.003681994,0.003357978,0.002670673,0.002886683,0.003475802,0.002700129,0.002601942,0.002160103,0.001786994,0.001423704,0.001502253,0.00160044,0.001246968,0.001423704,0.001462979,0.001777176,0.001364792,0.000883678,0.000677487,0.000775673,0.000785492,0.001040777,0.001040777,0.001315699,0.001678989,0.001129145,0.00145316,0.00174772,0.002052098,0.00166917,0.001521891,0.001786994,0.00174772,0.001590621,0.001698626,0.00166917,0.001639714,0.00130588,0.001462979,0.001767357,0.001315699,0.001335336,0.001246968,0.001080051,0.001060414,0.000392746,0.00065785,0.00094259,0.000991684,0.001080051,0.001011321,0.000765855,0.000412383,0.000206192,0.000117824,4.91E-05,0,6.87E-05,0.000166917,0.000274922,0.000373109,0.000461477,0.000559663,0.000628394,0.000706943,0.000775673,0.000785492,0.000795311,0.000844404,0.000903316,0.000972046,0.001001502,0.000530207,0.0005793,0.000697124,0.000343653,0.000412383,0.001099689,0.000333834,0.000451658,0.000598938,0.000569482,0.000824767,0.000785492\nSRI-1053260-001.txt,CC(C)C(NC(=O)CCSc1ccc(Cl)cc1)C(O)=O,0.709237819,0.696645563,0.684752877,0.672160621,0.658868796,0.642778691,0.622491168,0.598705796,0.571562489,0.540711462,0.508671167,0.476141173,0.444100878,0.414019378,0.384427577,0.358963238,0.337976145,0.322025954,0.311812235,0.307964602,0.310203225,0.317758578,0.330560705,0.347630207,0.369106999,0.394641296,0.424373011,0.458092273,0.495519256,0.536723915,0.581006681,0.627367169,0.675735423,0.725118052,0.773892056,0.820819196,0.865500717,0.905488125,0.940200777,0.968778201,0.98917066,0.99990206,1,0.988736927,0.966000909,0.931547099,0.887432229,0.835307286,0.777117073,0.714743433,0.652299836,0.590730701,0.53201581,0.47736542,0.428143692,0.384000839,0.344915877,0.311161636,0.2822764,0.257014936,0.234866557,0.215894225,0.199566267,0.184728392,0.171632446,0.159215083,0.148231837,0.137738291,0.128231138,0.119710378,0.111553395,0.103816153,0.096589597,0.089747805,0.082703138,0.07585435,0.069796075,0.063744797,0.058379097,0.053705971,0.048927909,0.044079891,0.040078352,0.036006856,0.032264158,0.028710343,0.025289447,0.021840568,0.019042289,0.01604813,0.013417748,0.01128406,0.009269299,0.007506384,0.006233167,0.005246773,0.004120466,0.003392913,0.002672357,0.00235755,0.001832873,0.001888838,0.001839868,0.001511071,0.001406135,0.001280213,0.001273217,0.001259226,0.001168282,0.000923432,0.001161286,0.001133303,0.001266221,0.001021372,0.000916436,0.000615621,0.000734548,0.000594634,0.000895449,0.000832488,0.000706565,0.000832488,0.000888454,0.001000385,0.001063346,0.000944419,0.000769527,0.000993389,0.000923432,0.000902445,0.000874462,0.000804505,0.000769527,0.001021372,0.000832488,0.001035363,0.000972402,0.000510686,0.000594634,0.0006506,0.000846479,0.00079751,0.000433733,0.000594634,0.000608626,0.000636608,0.000559656,0.000426738,0.000258841,9.79E-05,0,7E-06,1.4E-05,1.4E-05,3.5E-05,8.39E-05,0.00014691,0.000202875,0.000237854,0.000265837,0.000286824,0.000314806,0.000307811,0.000258841,0.000188884,0.000111931,0.000160901,0.000461716,0.000363776,0.000237854,0.000321802,0.000384763,0.00019588,0.000111931,0.000664591,0.000461716,0.000517682,0.00055266,0.00019588,0.000307811,0.000517682\nSRI-0000276.txt,OC1=CC=CC=C1CC1=NC2=CC=CC=C2S1,1,0.984101311,0.958418814,0.922646765,0.879536859,0.829700585,0.777112615,0.72269018,0.670407954,0.621183168,0.575933054,0.535360824,0.499160733,0.466537847,0.437614463,0.410586692,0.385515683,0.361514778,0.339562358,0.319108084,0.301802972,0.287677599,0.276823687,0.269608128,0.265480584,0.264043587,0.264746798,0.267070453,0.270494786,0.274744627,0.27969768,0.284806663,0.290111321,0.295027685,0.299014587,0.301711249,0.302692688,0.301778513,0.298993185,0.294422312,0.288591774,0.28177674,0.274114795,0.265868879,0.257121542,0.247924763,0.238443641,0.228904427,0.219750452,0.211155988,0.203720293,0.197736883,0.193557362,0.191053319,0.189643839,0.188879479,0.188408633,0.187225404,0.185066851,0.182101134,0.178410804,0.174867231,0.171800618,0.168734006,0.164227339,0.157002608,0.146075317,0.131919369,0.116537388,0.101562046,0.08797784,0.077007744,0.069107319,0.064239875,0.061093769,0.057626632,0.052484017,0.045146161,0.036563926,0.0280673,0.020597974,0.01495394,0.01085697,0.007931,0.005971181,0.004607562,0.003378471,0.002678318,0.002091289,0.001669362,0.001372791,0.001207689,0.001085391,0.000941692,0.000877485,0.000797992,0.00077659,0.00075213,0.000642062,0.000556454,0.000556454,0.00048919,0.000565626,0.000516707,0.00050142,0.000379123,0.000391352,0.000354663,0.00039441,0.000348548,0.000247653,0.000308801,0.000385237,0.000339376,0.000321031,0.000305744,0.000269055,0.000376065,0.000360778,0.000373008,0.000204848,0.000443329,0.000348548,0.000333261,0.00027517,0.000360778,0.000152872,0.000210963,0.000333261,0.000232365,0.000256825,0.00023848,0.000217078,0.000125355,0.000165102,0.000210963,0.000201791,0.000183446,0.000192619,0.000314916,0.000296572,0.000327146,0.000223193,0.000342433,0.000168159,0.000207906,0.000226251,0.000217078,0.000204848,0.000198734,0.000177332,0.000165102,0.000137585,0.000113125,0.000100896,9.17E-05,8.87E-05,9.17E-05,9.78E-05,0.00010701,0.00011924,0.000134527,0.000149815,0.000165102,0.000155929,0.000140642,0.000152872,0.000207906,0.000168159,0.000125355,6.42E-05,0.000158987,9.78E-05,0,9.17E-05,0.000137585,0.000339376,0.000198734,0.000180389,0.00026294,0.000177332\nSRI-0000713.txt,CCCCCCCN(CCCCCCC)CC(O)C1=C2C=CC3=CC=CC4=CC=C(C=C1)C2=C34,0.168800367,0.185420766,0.204287165,0.223602763,0.243816762,0.266276761,0.29188116,0.322875958,0.361057956,0.407325553,0.46078035,0.515133547,0.562748744,0.596887943,0.613957542,0.621593941,0.632868861,0.660404819,0.708109856,0.775400013,0.857873128,0.943355883,1,0.988949681,0.893809126,0.739374175,0.574787304,0.432256152,0.324582918,0.250420002,0.203433685,0.177380086,0.166374687,0.165161847,0.169128283,0.17442435,0.176836554,0.176036978,0.174100926,0.175313766,0.18396985,0.202607157,0.231921947,0.270539669,0.312032271,0.346166977,0.360896244,0.35051074,0.322067398,0.291166932,0.273023745,0.276001941,0.301017887,0.347595433,0.418115337,0.510560691,0.600616302,0.637297972,0.581332147,0.45658033,0.321434026,0.215427324,0.14427854,0.100849886,0.07623822,0.06253762,0.055161757,0.051532221,0.049587185,0.049061621,0.048540549,0.048019477,0.047844289,0.048046429,0.049322157,0.051599601,0.055071917,0.059716645,0.064145756,0.0684446,0.071535096,0.073781096,0.075308376,0.0767548,0.079072672,0.083209803,0.090185879,0.100517478,0.113876686,0.129607669,0.146196624,0.161316695,0.172609582,0.178350358,0.178777098,0.175327242,0.170040158,0.166509447,0.167771699,0.176144786,0.193124545,0.219411728,0.254988366,0.296579791,0.340650801,0.381469603,0.409692837,0.419543793,0.408848341,0.381042863,0.343269637,0.303897259,0.270773253,0.249885454,0.244207566,0.255585802,0.283000476,0.32364409,0.375665939,0.436995212,0.502569424,0.561100181,0.596533075,0.593752527,0.549847721,0.473443297,0.383778491,0.296489951,0.222237196,0.162920339,0.118269861,0.085725323,0.06289698,0.047920653,0.038824354,0.033038658,0.028614038,0.025069851,0.021588551,0.018601371,0.016157723,0.013826375,0.011903799,0.010497803,0.009307423,0.008683036,0.008373088,0.008256296,0.007937364,0.007295008,0.006661636,0.006104628,0.005691364,0.005408368,0.005201736,0.005004088,0.004774996,0.004483016,0.00413264,0.003737344,0.003292636,0.002767072,0.002138192,0.001531772,0.001046636,0.000664816,0.00049412,0.000282996,0.00047166,0.000309948,0.000152728,4.04E-05,8.98E-05,5.84E-05,8.98E-05,2.7E-05,0.000148236,5.39E-05,0,0.000251552,0.00017968\nSRI-1052763-001.txt,OC(=O)[C@H](Cc1c[nH]c2ccccc12)NC(=O)Cc1csc(n1)-c1cccc(Br)c1,1,0.991764246,0.976469273,0.952644412,0.919407261,0.875287148,0.822048879,0.761457258,0.696453625,0.630567591,0.567622897,0.509943203,0.458587392,0.414055491,0.376288675,0.344286887,0.316608869,0.292666355,0.27113574,0.251134622,0.232721829,0.215603225,0.199719984,0.185219174,0.172365515,0.161247246,0.151864369,0.143922749,0.137628279,0.13291331,0.12949253,0.127513008,0.126710022,0.127160047,0.128639542,0.131213215,0.134583991,0.138734223,0.143740385,0.149364229,0.155652816,0.16239731,0.169862433,0.177704048,0.186178051,0.194890303,0.203979046,0.213258976,0.222600675,0.232189446,0.241975287,0.251867016,0.261823455,0.27175048,0.281427492,0.290645654,0.299402025,0.30809957,0.317014774,0.326191758,0.335465805,0.34440454,0.352313806,0.358975943,0.363855627,0.367026393,0.368529418,0.36960889,0.371761951,0.37505037,0.379182954,0.381377195,0.379877111,0.374406217,0.365943979,0.356634635,0.34782532,0.33918366,0.33216268,0.325724085,0.319488442,0.313805771,0.307934855,0.301955109,0.2955724,0.288886732,0.282083411,0.275324209,0.268006153,0.260443966,0.252464108,0.24378127,0.234904303,0.225659669,0.21622973,0.206858619,0.197302202,0.187551657,0.177668752,0.167379942,0.156894062,0.145958156,0.134607522,0.122862748,0.111103268,0.099211427,0.087599013,0.07638368,0.0658978,0.056097252,0.04764678,0.04014342,0.033998959,0.028778079,0.024583727,0.020980584,0.018239255,0.016106782,0.014344919,0.012815422,0.011612414,0.010715305,0.009838785,0.008988738,0.008400469,0.007956327,0.007573953,0.007144517,0.006700374,0.006423888,0.00607681,0.00583562,0.005459129,0.005159112,0.004841447,0.004573785,0.004359067,0.003988458,0.003756092,0.003500196,0.003185472,0.002820746,0.002691327,0.002626617,0.002367779,0.00215012,0.001991288,0.001923637,0.001823631,0.001576559,0.001305955,0.001073589,0.000894168,0.000776514,0.000700039,0.000638271,0.000582385,0.000532383,0.000476497,0.00041767,0.000364726,0.000300017,0.000226483,0.000158832,0.000147067,0.000144126,0.000117654,0.000155891,2.35E-05,0.000179422,9.41E-05,8.82E-06,0.000117654,6.47E-05,6.77E-05,2.06E-05,2.35E-05,0,5.88E-05,0.000135302,8.53E-05\nSRI-1053015-001.txt,Cn1c(nc2ccccc12)[C@@H]1CCCN1C(=O)Cn1nnc2ccccc2c1=O,1,0.977909973,0.958145213,0.937217819,0.915321565,0.894975488,0.872304145,0.847888852,0.822892243,0.798283179,0.770573759,0.744995834,0.719030364,0.688414362,0.653922917,0.615362257,0.572151065,0.528164784,0.485534908,0.446392931,0.411901486,0.382835662,0.358614141,0.33906253,0.322824423,0.31003546,0.298796675,0.288836786,0.280020152,0.272017362,0.265312845,0.259557812,0.253124576,0.24913287,0.246187533,0.244346697,0.242757765,0.242331467,0.243048424,0.243319705,0.246633209,0.253919042,0.261747437,0.271881721,0.281531575,0.291491464,0.301509485,0.314957273,0.331602302,0.352006511,0.374406573,0.391516655,0.395353344,0.386439824,0.370569884,0.364156025,0.375162284,0.400798341,0.422965877,0.423508439,0.395043308,0.353227275,0.310674908,0.276047823,0.251516267,0.235375046,0.224523805,0.218419982,0.213653187,0.210165288,0.206696766,0.203170113,0.200592943,0.197395702,0.193520259,0.190071114,0.186563838,0.18425795,0.182010192,0.179839944,0.177863468,0.176371422,0.174317438,0.170093204,0.165384541,0.159862034,0.15397136,0.14749937,0.140852985,0.135582382,0.129323541,0.124828027,0.122425252,0.1200031,0.118607941,0.116650842,0.113492356,0.108531788,0.101381596,0.092874998,0.082450055,0.071308156,0.06146453,0.051446509,0.042145445,0.035537815,0.029976554,0.02422152,0.019474102,0.016393125,0.013312148,0.010967504,0.009630476,0.008099676,0.006316973,0.005541884,0.004728041,0.003972329,0.003991707,0.003313504,0.003003469,0.002267134,0.002189625,0.001995853,0.001298273,0.001705195,0.001918344,0.001666441,0.001143256,0.000871975,0.00083322,0.001065747,0.001724572,0.001298273,0.000988238,0.000251904,0.000658825,0.001550177,0,0.000503808,0.001666441,0.000368167,0.001007615,0.000271281,0.000445676,0.000368167,0.000445676,0.000406922,0.000329413,0.000368167,0.000290658,0.000193772,0.000135641,9.69E-05,7.75E-05,3.88E-05,1.94E-05,5.81E-05,0.000135641,0.000213149,0.000290658,0.000368167,0.000445676,0.000445676,0.000290658,0.000290658,0.000658825,0.00069758,0.000968861,0.000271281,0.000426299,0.000988238,0.000600694,0.000426299,0.000871975,0.000639448,0.00048443,0.000891352,0.000794466,5.81E-05,0.000213149\nSRI-004888.txt,CCOC(=O)C1=CNC2=C(Cl)C=CC(C)=C2C1=O,0.814357402,0.879210527,0.931021831,0.959667623,0.980367788,0.99672276,1,0.989211183,0.971069264,0.945011382,0.913920541,0.877541461,0.836874178,0.793027239,0.749875874,0.710291376,0.675975599,0.647540587,0.624225969,0.609824225,0.598186042,0.586108344,0.577557699,0.571736266,0.56791334,0.565166953,0.562753912,0.559820166,0.5558575,0.550260899,0.542359769,0.531834817,0.518426082,0.506838642,0.49358604,0.474391002,0.45343634,0.431067109,0.407093608,0.381640743,0.354802195,0.327082273,0.299067259,0.271317672,0.244385443,0.218749122,0.194882572,0.17842299,0.163683999,0.14675992,0.133353527,0.123777085,0.118049332,0.115954803,0.11716952,0.121239137,0.127722576,0.136175638,0.146353192,0.157956245,0.167440568,0.177656375,0.192108862,0.207421644,0.223584573,0.240386087,0.257785591,0.275673013,0.293982775,0.312732834,0.331849806,0.351354769,0.371143115,0.381191079,0.401492323,0.421983269,0.442551501,0.463223561,0.483598968,0.503513782,0.522673691,0.540693826,0.557280656,0.572222621,0.584744519,0.59042309,0.600058862,0.607393228,0.612819644,0.616360749,0.618783939,0.620268768,0.620707503,0.621059584,0.620994008,0.620574009,0.620046278,0.619512302,0.618300707,0.616546548,0.613509754,0.609180955,0.603258816,0.595019657,0.5843011,0.570774484,0.554212635,0.540326131,0.524969632,0.503697239,0.482242169,0.460719182,0.438729355,0.415538082,0.39215945,0.368580185,0.343451297,0.315907026,0.29341523,0.269443291,0.236163459,0.20238322,0.169419559,0.13848407,0.11070794,0.086535369,0.06631063,0.049997814,0.037173018,0.029498281,0.023569896,0.017378427,0.012834164,0.0095983,0.007259422,0.005576304,0.004339728,0.003415418,0.00271594,0.002170254,0.001971965,0.001627691,0.001297468,0.00111167,0.000926652,0.000752563,0.000722117,0.000548028,0.000477768,0.00051446,0.000332564,0.000447322,0.000367694,0.000359107,0.000381746,0.000272453,0.00028104,0.000345055,0.000293531,0.000209999,0.000332564,0.000178773,0.00029275,0.000159256,0.000262304,0.000167843,0.000188141,0.000183457,8.82E-05,0.000142862,8.82E-05,0.000109293,9.84E-05,0.000111635,5.46E-06,0.00010539,5E-05,5.62E-05,4.06E-05,0,6.56E-05\nSRI-1053257-001.txt,COc1ccc(OC)c(c1)S(=O)(=O)NC(C(C)C)C(O)=O,1,0.947138019,0.90732634,0.877674073,0.858594202,0.845874288,0.840422896,0.838523168,0.838688362,0.840257702,0.840257702,0.837366813,0.8298505,0.81622202,0.795490212,0.767324688,0.731973239,0.690179235,0.640621128,0.584868258,0.524737755,0.460147022,0.393573965,0.328157264,0.267448583,0.213182456,0.167671595,0.130503015,0.101916247,0.080176757,0.065061535,0.054076154,0.046881969,0.042429999,0.039324358,0.037498968,0.036747336,0.036606922,0.036549104,0.036747336,0.037193359,0.037862394,0.038432312,0.039216982,0.039943834,0.041075411,0.042256546,0.04319815,0.044057157,0.045841249,0.047658379,0.049962831,0.052259024,0.055447262,0.058767655,0.062971834,0.067382506,0.072544809,0.078351367,0.084620467,0.090939126,0.098265466,0.106739903,0.115800776,0.124935987,0.135458825,0.146832411,0.159742298,0.172817378,0.186842323,0.201718014,0.217295779,0.23375733,0.250764021,0.267869827,0.284653506,0.301437185,0.31857603,0.334740233,0.350689684,0.365664492,0.380416288,0.393491369,0.405286198,0.41543735,0.423663996,0.430238705,0.434352028,0.436268275,0.43534319,0.431890642,0.426571405,0.419170728,0.409358223,0.397422978,0.384413975,0.368869249,0.35182126,0.332311886,0.311902205,0.28874205,0.264004295,0.238696622,0.212364748,0.18638804,0.160931692,0.137110762,0.114875692,0.094276039,0.076872883,0.061741141,0.049293797,0.039043529,0.030387379,0.024019162,0.018642108,0.014727017,0.011290989,0.009069134,0.006739903,0.005451392,0.004749319,0.004014207,0.003089122,0.002907409,0.002676138,0.002180557,0.002048402,0.001974065,0.001701495,0.00156934,0.001387627,0.001387627,0.001139836,0.001032461,0.000958123,0.001148096,0.000602957,0.001106798,0.001255472,0.000908565,0.000569918,0.000569918,0.00025605,0.000404725,0.000602957,0.000635996,0.000602957,0.000487321,0.00027257,9.91E-05,6.61E-05,2.48E-05,0,2.48E-05,8.26E-05,0.000140415,0.000198232,0.000239531,0.00026431,0.000297349,0.000322128,0.000330387,0.000313868,0.000289089,0.000297349,0.000421244,0.000404725,0.000404725,0.000115636,0.000545139,0.000305608,2.48E-05,0.000189973,0.000346907,9.91E-05,0.000165194,0.000280829,0.000338647,0.000446023,0.00052862\nSRI-0000059.txt,O=C(NC1=NC=NC2=C1NC=N2)C1=CC=CC=C1,0.657044663,0.628916522,0.607028074,0.589646071,0.57810759,0.570976512,0.568351879,0.569887042,0.573749709,0.579692274,0.587070959,0.594697251,0.602323543,0.609553664,0.6158924,0.62163688,0.625350983,0.627827052,0.62921365,0.629510778,0.628520351,0.627282316,0.625648111,0.623419649,0.621810204,0.619888775,0.617798973,0.616135055,0.614723695,0.612559611,0.610024117,0.606235732,0.601040939,0.595029044,0.587214571,0.578642421,0.569372019,0.559507361,0.549558517,0.539862232,0.531052379,0.524317472,0.519845691,0.518350146,0.520831167,0.527962245,0.537950706,0.552054394,0.569753334,0.590473078,0.614094774,0.63936058,0.666681523,0.694903755,0.724121367,0.753378596,0.782715059,0.812165421,0.840585739,0.867698692,0.893434951,0.916150406,0.937508976,0.955975497,0.970861622,0.983405387,0.991987441,0.997801251,1,0.998836248,0.994017818,0.984851411,0.972248221,0.955564469,0.935518216,0.911891568,0.884288353,0.853698999,0.820811853,0.784279934,0.745182808,0.702970787,0.659337503,0.613129107,0.566148178,0.518785934,0.471067136,0.424205058,0.378610727,0.335026964,0.293691472,0.255639247,0.220677155,0.188656634,0.160280885,0.135143835,0.11344852,0.095125611,0.079575899,0.066640916,0.055780878,0.046832365,0.039329877,0.033382359,0.028469839,0.024636885,0.021536846,0.018941926,0.017000688,0.015108972,0.013603522,0.012330823,0.011479055,0.010483675,0.009572482,0.00922088,0.008681097,0.008047224,0.007467823,0.006863663,0.006531869,0.006160459,0.005868283,0.005080893,0.004848143,0.004461876,0.00396171,0.003570491,0.002991091,0.002906905,0.002560255,0.002183893,0.001921429,0.001619349,0.001554971,0.001302412,0.001104327,0.000990428,0.00092605,0.000727964,0.000747773,0.000792342,0.000643778,0.000450645,0.000311985,0.000307033,0.000326841,0.000336745,0.00034665,0.00034665,0.00034665,0.000341697,0.000316937,0.000292176,0.00027732,0.000252559,0.000237703,0.000212942,0.000193133,0.000178277,0.000173325,0.000158468,0.000153516,0.000153516,0.000148564,0.00020799,0.00023275,9.41E-05,0.00013866,0.00013866,0.000336745,0.000435788,0.000326841,0.000321889,0.000227798,0.000173325,4.95E-06,5.45E-05,0,9.9E-05,0.00013866\nSRI-0000273.txt,OC(C(=O)OC(C1=NC2=CC=CC=C2S1)C1=CC=CC=C1)C1=CC=CC=C1,1,0.980439556,0.956081268,0.92434168,0.887435183,0.845730841,0.800704914,0.754940857,0.709914931,0.667472459,0.628351571,0.593290399,0.561919876,0.532763743,0.506191065,0.481094647,0.456736358,0.432747135,0.409016257,0.384842502,0.361480689,0.339816575,0.320883542,0.304755402,0.293019136,0.285416398,0.281393589,0.281430496,0.284050857,0.289070141,0.296119282,0.304607776,0.314129653,0.323983687,0.333357938,0.341739403,0.348902954,0.354586555,0.358609363,0.359893709,0.358561385,0.354568102,0.349489768,0.344363455,0.339196546,0.333660571,0.32672584,0.317366352,0.305674374,0.292022661,0.276577291,0.259341957,0.240707867,0.22101456,0.201380303,0.183019321,0.165994353,0.151076747,0.138074588,0.126917754,0.117347899,0.109711945,0.10354856,0.098828219,0.095591519,0.093532136,0.091926704,0.089922681,0.087560665,0.084445757,0.080906424,0.076765515,0.072827591,0.069251352,0.066354192,0.064143492,0.061873743,0.059456367,0.056452178,0.052215313,0.047170194,0.041737558,0.036164677,0.030824307,0.025864073,0.021354099,0.017445701,0.014164714,0.011208503,0.008986732,0.006964256,0.005392039,0.004181506,0.003288369,0.002601908,0.002018785,0.001668174,0.001369231,0.001048145,0.000826706,0.000734439,0.00073813,0.000760274,0.000664317,0.00062372,0.00050931,0.000590504,0.00062372,0.000498238,0.000520382,0.000542526,0.000461331,0.000402281,0.000520382,0.000457641,0.000258345,0.00039859,0.000310015,0.000387518,0.000472403,0.00045395,0.000324777,0.000357993,0.000391209,0.000254655,0.00034323,0.00028418,0.000210367,0.000239892,0.000369065,0.000446569,0.000431806,0.000527763,0.000357993,0.00033954,0.000310015,0.000195604,0.000391209,0.000321087,0.000450259,0.000250964,0.000243583,0.00034323,0.000324777,0.000269417,0.000291561,0.000313705,0.000202986,0.000151317,0.000125482,9.96E-05,7.75E-05,6.27E-05,6.27E-05,5.91E-05,6.27E-05,6.64E-05,7.75E-05,8.49E-05,8.49E-05,8.86E-05,9.96E-05,0.000107029,0.000121791,0.000140245,9.96E-05,8.49E-05,0.000302633,9.23E-05,0.000173461,0.000335849,0.000221439,0,7.38E-05,0.000151317,0.000202986,0.000103338,0.000232511,0.000184532,9.96E-05,0.000118101\nSRI-1053066-001.txt,OC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)COc1ccc(Cl)cc1,0.989151163,0.999517829,1,0.987945737,0.96383721,0.925022481,0.872465892,0.808819381,0.736469692,0.659467057,0.581451864,0.50753512,0.437041787,0.371780005,0.312545354,0.260663804,0.216231789,0.179610937,0.150029774,0.126548069,0.108514891,0.094893573,0.084719775,0.077077371,0.071580627,0.067699155,0.065071325,0.063504271,0.062684581,0.062684581,0.063405426,0.064569868,0.066221302,0.068569472,0.071354007,0.074618302,0.078371999,0.082419821,0.086860612,0.091494271,0.096414821,0.101595743,0.106983999,0.112572356,0.118370456,0.124048015,0.129785844,0.135526084,0.14111203,0.146707619,0.151886131,0.156768107,0.161286045,0.165162696,0.168238944,0.170618456,0.172564014,0.174420371,0.176647999,0.178979293,0.180934495,0.181614355,0.180712696,0.178378991,0.17447341,0.168947735,0.16228896,0.155671169,0.150304611,0.146471355,0.142773107,0.136755619,0.126249123,0.111718914,0.09531065,0.079242317,0.064895333,0.053181,0.043388116,0.03554079,0.028988093,0.02349376,0.01902886,0.015328201,0.012292938,0.009971287,0.00797269,0.006439388,0.005282178,0.004303372,0.003616279,0.003008744,0.002538628,0.002172178,0.001798496,0.001603217,0.001489907,0.001287395,0.001104171,0.000942643,0.000851031,0.000691915,0.000470116,0.000542442,0.000450829,0.000311,0.000419488,0.000335109,0.00042431,0.000344752,0.000320643,0.000296535,0.000344752,0.000260372,0.000229031,0.000337519,0.000330287,0.000207333,0.000270016,0.000163938,0.000122953,0.000323054,0.000224209,0.000195279,0.000296535,0.000229031,0.00014224,0.000267605,0.000267605,0.000257961,0.00011331,0.000180814,0.000241085,0.000101256,0.000212155,0.000178403,0.000180814,0.000120543,7.96E-05,5.79E-05,0.000151884,0.000135008,8.68E-05,0.000156705,0.000139829,8.68E-05,9.4E-05,9.64E-05,9.4E-05,8.68E-05,8.68E-05,8.92E-05,8.68E-05,7.71E-05,6.51E-05,5.54E-05,5.3E-05,5.3E-05,5.3E-05,5.06E-05,5.54E-05,6.51E-05,7.71E-05,8.68E-05,9.4E-05,8.44E-05,9.64E-05,7.71E-05,0.000101256,0.00011331,0.000125364,0.00014224,7.47E-05,0.000106078,4.58E-05,0.000108488,8.92E-05,7.23E-05,0,7.47E-05,7.96E-05\nSRI-0000266.txt,CC(=O)NC(C1=NC2=C(N1)C=CC=C2)C1=CC=CC=C1,1,0.952419312,0.900622614,0.844233477,0.785058761,0.723625468,0.660535885,0.598425019,0.539626733,0.486550174,0.43964706,0.400197249,0.36677031,0.340043816,0.318210906,0.300744578,0.286967258,0.276126089,0.267694068,0.261219481,0.256837842,0.253721006,0.252034601,0.250807441,0.250047054,0.24953511,0.248789779,0.24862415,0.248722022,0.249610395,0.251605472,0.254473865,0.258200516,0.262461698,0.267347753,0.274281584,0.282412461,0.291642512,0.30185128,0.31290325,0.326725741,0.344628728,0.366920882,0.390748869,0.413199124,0.432479842,0.448869582,0.465552937,0.486301731,0.514669457,0.549986072,0.587011677,0.611479594,0.605351322,0.568393474,0.520797729,0.492181559,0.503022729,0.547644681,0.589488583,0.57967883,0.507600111,0.400648964,0.292485715,0.202865381,0.135860932,0.089146032,0.058429386,0.039299239,0.026982466,0.019318361,0.014552764,0.011398285,0.009606481,0.007761976,0.006775731,0.005887357,0.004660197,0.004140724,0.003907338,0.003297522,0.00336528,0.00277805,0.002567249,0.002356449,0.002062834,0.00181439,0.001784276,0.001558418,0.001219632,0.001234689,0.00117446,0.000843202,0.00101636,0.001038945,0.001008831,0.001031417,0.001008831,0.000895902,0.000888374,0.000850731,0.000421601,0.000865788,0.000767916,0.000737802,0.000888374,0.000858259,0.000617344,0.000632402,0.000572173,0.000715216,0.000790502,0.000813088,0.000632402,0.000805559,0.000835673,0.000790502,0.000843202,0.001038945,0.00101636,0.000767916,0.000813088,0.000873316,0.000963659,0.00053453,0.000647459,0.000542058,0.000880845,0.000715216,0.000933545,0.000888374,0.000805559,0.000790502,0.000858259,0.000662516,0.000609816,0.000782973,0.000609816,0.000579701,0.000594759,0.000383958,0.00063993,0.000406544,0.000489358,0.000459244,0.000527001,0.000496887,0.000451715,0.000271029,0.000165629,7.53E-05,2.26E-05,0,7.53E-06,2.26E-05,4.52E-05,6.02E-05,8.28E-05,8.28E-05,7.53E-05,0.000112929,0.0001581,0.000173158,0.0001581,0.000112929,0.000135515,0.000271029,0.000489358,0.000112929,0.000173158,0.000293615,0.000210801,0.000255972,0.000293615,5.27E-05,0.000391487,0.000466773,0.000609816,0.000557116,0.000323729,0.000331258\nSRI-0000272.txt,OC(C1=NC2=C(O1)C=CC(Cl)=C2)C1=CC=CC=C1,1,0.935935344,0.878206753,0.827518234,0.784573794,0.750077441,0.725437188,0.710653037,0.706428994,0.711357044,0.724029174,0.741629354,0.761623159,0.782672975,0.801469967,0.816817324,0.827870237,0.834206302,0.834628707,0.829278252,0.816887725,0.796964321,0.770564051,0.736208499,0.69629129,0.652009237,0.604840754,0.556123455,0.507054152,0.45805525,0.410323562,0.364915097,0.32230154,0.282687055,0.246888288,0.216052772,0.190293149,0.170658388,0.156078398,0.145989975,0.139139985,0.135542508,0.135007462,0.138351497,0.144877644,0.152459801,0.161069809,0.170151502,0.180458168,0.192306609,0.205499704,0.220290896,0.236398581,0.252295064,0.266361128,0.277547802,0.286713976,0.296091352,0.307397708,0.322210019,0.338416265,0.352756892,0.360430571,0.357185098,0.343013432,0.321956577,0.30175157,0.289276562,0.288495114,0.293155642,0.29294444,0.27736476,0.243382332,0.19826955,0.150925065,0.108839515,0.074920447,0.05075188,0.034348512,0.023344879,0.016079525,0.011637239,0.008708569,0.006371265,0.005012531,0.004132522,0.003456675,0.002999071,0.002513306,0.002147222,0.001823379,0.001598096,0.001548816,0.001506575,0.001422095,0.001288333,0.001217932,0.001063051,0.001175692,0.001358734,0.00094337,0.000570246,0.000880009,0.00095041,0.000908169,0.000471685,0.000718087,0.000908169,0.000809608,0.000443525,0.000802568,0.000443525,0.000436484,0.000373124,0.000218242,0.000844809,0.000802568,0.000605446,0.000464645,0.000654727,0.000682887,0.000767368,0.000556166,0.000922249,0.000408324,0.000844809,0.000373124,0.000739208,0.000661767,0.000337923,0.000239362,0.000401284,0.000767368,0.000499845,0.000344964,0.000556166,0.000612486,0.000774408,0.000563206,0.000563206,0.000471685,0.000542086,0.000436484,0.000492805,0.000190082,0.000246403,0.000302723,0.000232322,0.000281603,0.000309763,0.000316803,0.000309763,0.000295683,0.000274563,0.000253443,0.000225282,0.000211202,0.000197122,0.000190082,0.000190082,0.000183042,0.000183042,0.000183042,0.000183042,0.000183042,0.000133761,7.74E-05,0.000295683,0.000147842,0.000239362,0,1.41E-05,0.000112641,0.000563206,0.000161922,0.000267523,0.000246403,0.000168962,0.000218242,0.000344964,0.000211202\nSRI-0000058.txt,CC(S)CN,1,0.933333333,0.866666667,0.733333333,0.666666667,0.6,0.533333333,0.4,0.4,0.4,0.333333333,0.266666667,0.266666667,0.226666667,0.206666667,0.2,0.18,0.2,0.206666667,0.193333333,0.173333333,0.173333333,0.193333333,0.166666667,0.166666667,0.173333333,0.173333333,0.16,0.166666667,0.146666667,0.14,0.133333333,0.149333333,0.156666667,0.164,0.167333333,0.146666667,0.132,0.139333333,0.139333333,0.134666667,0.149333333,0.126666667,0.104666667,0.124666667,0.108666667,0.118,0.128666667,0.108,0.108666667,0.099333333,0.100666667,0.083333333,0.082,0.085333333,0.078666667,0.062,0.062666667,0.058,0.052,0.059333333,0.059333333,0.035333333,0.03,0.038666667,0.045333333,0.014666667,0.071333333,0.062,0.046666667,0.050666667,0.04,0.056666667,0.067333333,0.07,0.044666667,0.049333333,0.057333333,0.057333333,0.052,0.047333333,0.072666667,0.052,0.038,0.040666667,0.043333333,0.050666667,0.032666667,0.056,0.046666667,0.061333333,0.033333333,0.025333333,0.03,0.026,0.032,0.03,0.012,0.045333333,0.029333333,0.035333333,0.054,0.037333333,0.021333333,0.035333333,0.048,0.028,0.040666667,0.036666667,0.03,0.02,0.004666667,0.038666667,0.018,0.026666667,0.036,0.006666667,0.02,0.025333333,0.048,0.039333333,0.034,0.005333333,0.007333333,0.039333333,0.035333333,0.027333333,0.069333333,0.022,0.030666667,0.058666667,0.041333333,0.049333333,0.025333333,0.028666667,0.042,0.046,0.027333333,0.041333333,0.019333333,0.025333333,0.048,0.015333333,0.028,0.026,0.024,0.029333333,0.028666667,0.030666667,0.025333333,0.021333333,0.021333333,0.018666667,0.016,0.014,0.012666667,0.012,0.010666667,0.011333333,0.012666667,0.014,0.015333333,0.015333333,0.013333333,0.016666667,0.024666667,0.033333333,0.012,0.018,0.032,0.045333333,0.057333333,0.064,0.006,0.026,0.036,0.029333333,0,0.015333333,0.024666667,0.012666667\nSRI-0000716.txt,CCCC1N(CCC11C(=O)NC2=CC=CC=C12)S(=O)(=O)C1=CC=C(C)C=C1,1,0.939458773,0.89302424,0.858933064,0.837185244,0.825429666,0.82366633,0.82895634,0.838360802,0.849528601,0.860108622,0.869513084,0.875978652,0.879564103,0.878329767,0.873098535,0.863047516,0.849352268,0.831307455,0.810970305,0.787576705,0.763125103,0.737145275,0.710871559,0.684597842,0.659147015,0.635518303,0.613476595,0.593139445,0.575623633,0.559518492,0.544765241,0.531481438,0.518620836,0.505548633,0.49202384,0.477617379,0.462652529,0.446612042,0.429707521,0.412091788,0.395822068,0.37981097,0.363752851,0.346583829,0.326546446,0.302518045,0.27485717,0.245673947,0.21711377,0.191739355,0.170473515,0.153304493,0.140567324,0.131874074,0.126202008,0.121217643,0.1163861,0.111848447,0.107980862,0.105723791,0.103672443,0.102632074,0.101609339,0.100275081,0.098799755,0.096530929,0.094062258,0.091058707,0.087338067,0.083388193,0.079267863,0.075370888,0.071415136,0.067141984,0.062663109,0.057708133,0.052424,0.046969412,0.041409024,0.035695813,0.030059013,0.025209837,0.020907296,0.017121999,0.014353561,0.012049467,0.010327275,0.008987139,0.007799826,0.007100369,0.006659535,0.00656549,0.005924811,0.0057426,0.005854278,0.005707333,0.005501611,0.005501611,0.005219477,0.005054899,0.004849176,0.004766887,0.004819787,0.004761009,0.004514142,0.004196741,0.003985141,0.003914607,0.003644229,0.00345614,0.003221028,0.002786072,0.002533327,0.002374627,0.00212776,0.001904404,0.001481203,0.001310747,0.001204947,0.001216702,0.000893424,0.000387934,0.000564268,0.000476101,0.000417323,0.000523123,0.000552512,0.000540757,0.000352667,0.000405567,0.000581901,0.000305645,0.000335034,0.000258623,0.00034679,0.000252745,0.000205723,8.82E-05,0.000123434,0.000252745,0.000305645,0.000141067,0.000270378,0.000317401,0.000481979,0.000464345,0.000411445,0.000358545,0.000323278,0.000293889,0.000276256,0.000258623,0.000246867,0.000229234,0.000223356,0.000217478,0.000217478,0.000205723,0.000182211,0.000176334,0.000182211,0.000182211,0.000199845,0.000217478,0.000188089,0.000193967,0.000293889,0.000323278,0.000252745,0.000323278,0.000311523,0.000258623,9.99E-05,0,0.000252745,0.00050549,0.000288012,0.000264501,0.000382056,0.000317401\nSRI-0000689.txt,CCN(CC)C(=O)N(C)[C@@H]1CC[C@H]1N(C)C,1,0.941049086,0.878488932,0.815126724,0.751764517,0.68358999,0.61822265,0.555662496,0.497914662,0.440567854,0.388434392,0.34231633,0.294995188,0.255694578,0.219201155,0.187921078,0.158245107,0.132940327,0.112568175,0.091875201,0.075433109,0.064204363,0.054499519,0.04503529,0.037897016,0.032162336,0.027590632,0.02273821,0.018888354,0.015439525,0.013795316,0.012832852,0.010266282,0.009143407,0.008902791,0.007058069,0.005534167,0.006376323,0.005093038,0.003529034,0.005133141,0.00497273,0.004531601,0.004692012,0.004411293,0.004732114,0.004611806,0.003809753,0.003889958,0.002967597,0.003087905,0.00180462,0.001884825,0.002366057,0.001764517,0.002807186,0.001924928,0.001523901,0.001443696,0.002446262,0.002767084,0.004130574,0.00120308,0.000120308,0.002325954,0.001844722,0.00316811,0.00376965,0.001644209,0.001082772,0.002165544,0.003328521,0.001122875,0.002085338,0.002285852,0.001884825,0.002967597,0.002125441,0.002967597,0.002005133,0.0030077,0.002245749,0.002085338,0.002646776,0.00180462,0.00060154,0.002646776,0.00180462,0.001724415,0.001042669,0.001283285,0.000962464,0.001243183,0.002245749,0.001243183,0.00120308,0.001884825,0.001724415,0.00256657,0.002205646,0.002085338,0.000360924,0,0.001483799,0.002446262,0.000721848,0.000802053,0.000922361,0.002005133,0.00316811,0.001924928,0.001924928,0.001764517,0.002366057,0.001443696,0.002205646,0.00240616,0.003288418,0.003649342,0.000401027,0.002686878,0.002526468,0.000842156,0.001483799,0.002325954,0.002245749,0.001122875,0.002366057,0.000882259,0.001844722,0.00120308,0.000882259,0.00180462,0.000641643,0.002165544,0.001644209,0.003047802,0.001283285,0.002967597,0.000962464,0.001684312,0.002847289,0.002165544,0.003288418,0.002486365,0.001483799,0.001443696,0.001363491,0.001243183,0.001082772,0.000922361,0.000842156,0.001042669,0.00120308,0.001243183,0.001243183,0.001162977,0.001122875,0.001082772,0.001042669,0.001042669,0.001082772,0.001162977,0.001483799,0.001604107,0.001363491,0.00196503,0.002726981,0.003649342,0.001443696,0.001724415,0.002807186,0.001764517,0.001483799,0.002807186,0.003889958,0.001684312,0.003208213,0.000922361,0.000561437,0.000481232\nSRI-0000138.txt,ClC1=CC=C(NC(=O)C2CCC3=C(C2)C(Cl)=NC(Cl)=N3)C=C1,0.734893958,0.774909964,0.81492597,0.854941977,0.889955982,0.919967987,0.949979992,0.974989996,0.989995998,1,1,0.994997999,0.984993998,0.959983994,0.933973589,0.903961585,0.87194878,0.832432973,0.786914766,0.735394158,0.680372149,0.62434974,0.569827931,0.517306923,0.469787915,0.427771108,0.394257703,0.365246098,0.341236495,0.321728691,0.308723489,0.295718287,0.286714686,0.278661465,0.272559024,0.263755502,0.256952781,0.25140056,0.24764906,0.240596238,0.234543818,0.227741096,0.220338135,0.213685474,0.210034014,0.205332133,0.196028411,0.18952581,0.183923569,0.177170868,0.171468587,0.161814726,0.158013205,0.152310924,0.147008804,0.138505402,0.130902361,0.122499,0.114995998,0.103791517,0.097589036,0.093487395,0.086784714,0.078731493,0.068527411,0.06167467,0.052871148,0.040266106,0.033663465,0.032062825,0.031862745,0.031762705,0.031362545,0.030262105,0.028261305,0.026960784,0.026060424,0.024209684,0.024409764,0.025310124,0.023459384,0.024159664,0.025960384,0.023809524,0.023259304,0.021308523,0.020908363,0.021108443,0.021508603,0.019907963,0.018257303,0.019457783,0.019657863,0.019607843,0.018707483,0.018107243,0.016156463,0.017607043,0.016456583,0.017206883,0.016456583,0.015206082,0.015306122,0.014905962,0.015506202,0.016156463,0.015606242,0.012605042,0.013805522,0.014555822,0.014955982,0.013455382,0.011954782,0.012955182,0.012454982,0.011404562,0.013205282,0.013055222,0.012454982,0.012555022,0.013505402,0.010804322,0.011604642,0.010754302,0.009903962,0.012004802,0.011354542,0.012154862,0.011354542,0.009703882,0.010604242,0.009853942,0.009703882,0.008403361,0.009503802,0.011854742,0.010804322,0.009953982,0.008753501,0.009903962,0.009703882,0.006552621,0.006552621,0.006902761,0.007653061,0.008703481,0.008753501,0.007903161,0.006102441,0.004351741,0.00310124,0.00215086,0.00180072,0.00190076,0.00235094,0.00285114,0.00310124,0.003451381,0.003701481,0.003851541,0.003951581,0.003951581,0.003901561,0.003701481,0.003301321,0.00270108,0.00240096,0.003701481,0.00285114,0.00170068,0.00205082,0,0.00240096,0.0017507,0.0022509,0.0007503,0.00305122,0.0027511,0.00190076,0.00080032,0.00265106\nSRI-0000110.txt,COC(=O)C1CCC(=O)C(C1)C(=O)OC,1,0.863692689,0.764560099,0.671623296,0.572490706,0.48574969,0.436183395,0.361833953,0.293680297,0.244114002,0.262701363,0.213135068,0.206939281,0.182156134,0.175960347,0.16976456,0.163568773,0.16976456,0.132589839,0.138785626,0.132589839,0.132589839,0.114002478,0.144981413,0.132589839,0.140644362,0.173482032,0.208798017,0.243494424,0.281908302,0.29739777,0.333952912,0.346344486,0.36307311,0.384758364,0.365551425,0.37732342,0.415737299,0.40086741,0.406443618,0.40086741,0.403345725,0.373605948,0.389095415,0.385377943,0.401486989,0.379801735,0.383519207,0.369268897,0.366790582,0.370508055,0.346964064,0.34448575,0.351301115,0.33952912,0.342627014,0.335811648,0.335811648,0.299876084,0.309169765,0.296778191,0.293060719,0.296778191,0.266418835,0.268277571,0.284386617,0.275712515,0.250929368,0.271995043,0.26394052,0.243494424,0.252168525,0.244114002,0.256505576,0.231722429,0.257744734,0.219330855,0.206939281,0.244114002,0.236679058,0.195786865,0.215613383,0.221189591,0.203841388,0.214993804,0.218091698,0.206319703,0.206319703,0.17472119,0.189591078,0.190830235,0.205080545,0.19330855,0.206319703,0.162949195,0.189591078,0.203221809,0.195167286,0.180297398,0.167286245,0.167905824,0.156753408,0.167286245,0.172242875,0.143742255,0.19330855,0.17472119,0.148079306,0.167905824,0.130111524,0.153035936,0.156133829,0.126394052,0.124535316,0.131350682,0.138785626,0.127013631,0.116480793,0.112763321,0.124535316,0.112143742,0.083643123,0.092936803,0.105947955,0.078686493,0.104708798,0.114622057,0.143122677,0.115861214,0.105328377,0.105328377,0.114622057,0.110285006,0.068773234,0.092317224,0.104708798,0.103469641,0.087980173,0.114002478,0.081784387,0.08983891,0.095415118,0.09417596,0.073729864,0.076208178,0.082403965,0.079306072,0.072490706,0.060099133,0.047707559,0.040272615,0.034076828,0.032218092,0.03283767,0.035935564,0.039033457,0.040892193,0.042131351,0.042750929,0.042750929,0.042750929,0.042131351,0.040892193,0.040892193,0.039033457,0.0377943,0.040892193,0.055762082,0.034696406,0.034696406,0.019826518,0.011152416,0.030978934,0.014869888,0.008674102,0.01425031,0.03283767,0.008054523,0,0.013630731,0.035315985\nSRI-0000338.txt,CCCCS(=O)(=O)NC(C)CC1=CC=CC=C1,1,0.741848366,0.539298622,0.380436078,0.265260733,0.185829461,0.138170698,0.106398189,0.090511935,0.082568807,0.07462568,0.07462568,0.070654117,0.071051273,0.071448429,0.072639898,0.07462568,0.077008618,0.078597244,0.079391556,0.079788713,0.080583026,0.081774495,0.081774495,0.082965964,0.081774495,0.081377338,0.082568807,0.082171651,0.082568807,0.082171651,0.082171651,0.084554589,0.086381508,0.088764447,0.091584257,0.090909091,0.093967195,0.100599706,0.105405298,0.107748521,0.107430796,0.105683308,0.102823782,0.100480559,0.09928909,0.09738274,0.093172882,0.090710513,0.088446721,0.083720561,0.076055443,0.065093927,0.058938004,0.056237341,0.054688431,0.052821796,0.050756583,0.05242464,0.052265777,0.053457246,0.053735256,0.052345208,0.052583502,0.054092696,0.053894118,0.051670042,0.052464355,0.05123317,0.051153739,0.051828905,0.052027483,0.049287104,0.049882839,0.047936773,0.043568053,0.041145399,0.040787958,0.039119902,0.03494976,0.034751182,0.033639144,0.031812224,0.030064736,0.027522936,0.023670519,0.02156559,0.019500377,0.017157155,0.013701894,0.012629572,0.011120378,0.008221137,0.00627507,0.00746654,0.005401327,0.00373327,0.003693554,0.003693554,0.0012709,0.001866635,0.000834028,0.001390047,0.001509194,0.002263791,0.001707772,0.001429763,0.00154891,0.002065213,0.001707772,0.002303507,0.002263791,0.00309782,0.003058104,0.00373327,0.002780095,0.001707772,0.002144644,0.002700663,0.001350332,0.002462369,0.00154891,0.002263791,0.003137535,0.0012709,0.002422654,0.00091346,0.002144644,0.001072322,0.0012709,0.001747488,0.001628341,0.002978673,0.001350332,0.001231185,0.002462369,0.002224076,0.00218436,0.001787204,0.001747488,0.000992891,0.002541801,0.001429763,0.002541801,0.001310616,0.001985782,0.002899241,0.002382938,0.002422654,0.002382938,0.002104929,0.001906351,0.001628341,0.001310616,0.001112038,0.000992891,0.000992891,0.000992891,0.001032607,0.001191469,0.001231185,0.001350332,0.001429763,0.001310616,0.00091346,0.000675166,0,0.00063545,0.001668057,0.001072322,0.000754597,0.002065213,0.00154891,0.001191469,0.001350332,0.002541801,0.002938957,0.002938957,0.00281981,0.002343223,0.001946066\nSRI-1052843-001.txt,COc1ccc2n(C)c(cc2c1)C(=O)N[C@@H](C(C)C)C(=O)NCCc1c[nH]c2ccccc12,0.995757931,1,0.995757931,0.981546998,0.955670374,0.918976473,0.870828985,0.81250053,0.746748454,0.677178515,0.60845699,0.544825948,0.488067059,0.439601415,0.399026021,0.366022721,0.339361314,0.317238922,0.298637447,0.282347901,0.268009706,0.254732028,0.242196713,0.22978866,0.217423028,0.205014975,0.193009918,0.181110913,0.169699746,0.15892489,0.148425768,0.138164202,0.128146555,0.118642198,0.110172907,0.10331348,0.098150882,0.095249306,0.094224847,0.095077503,0.097463667,0.101207293,0.106089915,0.112028812,0.118843697,0.126377612,0.134849025,0.143740402,0.153079318,0.162889104,0.173165517,0.183630702,0.194441616,0.205470997,0.216387963,0.227406738,0.238183716,0.248960693,0.260240356,0.271865747,0.283711726,0.295388022,0.306799189,0.317306795,0.326531175,0.334709885,0.341191767,0.346746757,0.352189332,0.35821095,0.364578296,0.369919061,0.372267047,0.371480143,0.367240194,0.361180398,0.354119474,0.346874019,0.339654017,0.331734073,0.323165093,0.313953439,0.303753383,0.292917017,0.280909839,0.268497544,0.255262287,0.241986731,0.228647543,0.21562439,0.203146343,0.191338543,0.18059126,0.170582097,0.161724656,0.15371775,0.146601678,0.140433709,0.134955076,0.130013066,0.125616161,0.12157771,0.117931652,0.114569812,0.111337355,0.108117624,0.104938193,0.101803304,0.098812645,0.095821986,0.092839811,0.089978535,0.086970908,0.083922981,0.080913233,0.077829248,0.074800411,0.071633706,0.068600626,0.065440284,0.062324484,0.059352915,0.05618621,0.052748013,0.049551613,0.046187652,0.042766423,0.039360041,0.036195458,0.033037237,0.030065667,0.027214997,0.02439402,0.021713032,0.019210212,0.016959794,0.014859969,0.012972248,0.011230879,0.009671918,0.008263551,0.006997294,0.005979197,0.00512442,0.004303579,0.003756352,0.003425471,0.003272757,0.003069137,0.002659778,0.002174061,0.001730764,0.001418972,0.0012302,0.001105059,0.00100537,0.000916287,0.000833567,0.000752967,0.000672368,0.000587527,0.000494201,0.000400876,0.000316034,0.000252403,0.000193014,9.54E-05,0.000165441,0.000165441,0.000252403,0.000171804,0.000156957,6.36E-05,0.000142109,0.000135746,0.000273613,0.000248161,6.58E-05,8.06E-05,4.24E-05,0\nSRI-1052821-001.txt,CCOC(=O)c1c(NC(=O)CN2C(=O)c3ccccc3C2=O)scc1-c1ccc(F)cc1,1,0.99445513,0.976434302,0.945937516,0.904004436,0.856179931,0.8062761,0.760184367,0.721370276,0.690180382,0.666961238,0.648593856,0.631959245,0.615671189,0.599036579,0.583095077,0.568505138,0.555440037,0.543691844,0.53149313,0.516418014,0.495520785,0.468177644,0.436606539,0.40385715,0.372216735,0.343140822,0.317010622,0.293410268,0.272270451,0.253036683,0.235708964,0.219940739,0.205454766,0.192493632,0.181060803,0.17090676,0.162339935,0.15520438,0.149326818,0.144530505,0.14054513,0.13688205,0.133582852,0.130526243,0.127649841,0.124991769,0.122430732,0.119769195,0.117062605,0.114602069,0.112470759,0.110478072,0.108922043,0.107542756,0.10597633,0.105054496,0.104579716,0.105009444,0.106128814,0.108052191,0.11078304,0.11425898,0.118233959,0.122711441,0.127750342,0.13290014,0.138185095,0.143830466,0.149732287,0.155599452,0.16128641,0.16708773,0.172941034,0.178510163,0.183819376,0.188615689,0.193186741,0.197272617,0.20073123,0.203652683,0.206075098,0.207939561,0.209249536,0.210122854,0.209946111,0.208819809,0.207055847,0.204314602,0.200828265,0.196541387,0.191578728,0.18632843,0.180326108,0.173894058,0.167219421,0.160579439,0.153398832,0.146242484,0.138878203,0.131600561,0.124212022,0.116563567,0.108928974,0.10122507,0.093659788,0.086333628,0.079000537,0.071584273,0.064538823,0.058030531,0.051539568,0.045648143,0.040179515,0.034998527,0.030212611,0.025984648,0.022318102,0.019001577,0.016066261,0.013425517,0.011155586,0.009481728,0.007835595,0.006484033,0.005416645,0.004224498,0.003531389,0.002987299,0.00238776,0.001961498,0.001666927,0.001296113,0.000907972,0.000998077,0.000849058,0.000745092,0.000644591,0.000603005,0.000402003,0.000502504,0.000284175,0.000398538,0.000201002,0.000169812,0.000190605,0.000183674,0.000197536,0.000169812,0.000121294,8.66E-05,5.54E-05,3.47E-05,2.43E-05,2.77E-05,3.47E-05,3.81E-05,4.16E-05,4.85E-05,5.54E-05,6.24E-05,7.28E-05,7.62E-05,8.66E-05,0.000117828,0.000162881,0.000155949,7.28E-05,0.000155949,0,8.32E-05,0.000169812,0.000180208,0.000204467,0.000190605,0.000173277,0.000204467,2.77E-05,4.51E-05,7.97E-05,0.000242588\nSRI-1052754-001.txt,O=C(N1CCCc2ccc(NS(=O)(=O)CCN3C(=O)c4ccccc4C3=O)cc12)c1cccnc1,1,0.997835287,0.989327462,0.971875514,0.942509255,0.897973225,0.848537225,0.796953293,0.746275519,0.701353533,0.664150677,0.633391618,0.606122949,0.578921402,0.55088082,0.523729616,0.499649283,0.479109682,0.462463208,0.449323905,0.437157883,0.420729559,0.395407453,0.361611083,0.324844527,0.290712543,0.262705522,0.241360447,0.225871842,0.214900608,0.207215038,0.202048255,0.198458859,0.195938395,0.194142858,0.192691325,0.19195633,0.191525065,0.191219656,0.191214622,0.191231403,0.191489826,0.191671058,0.191947939,0.191952974,0.192013384,0.192031843,0.191699585,0.191452908,0.19112904,0.190444387,0.189749665,0.188778062,0.187638651,0.186098181,0.184336205,0.182468511,0.180369243,0.17843107,0.176367041,0.174212397,0.172431963,0.170743822,0.169221811,0.167706512,0.166494944,0.16520115,0.163904001,0.162771302,0.161480865,0.160254194,0.158985572,0.157674998,0.156320794,0.154662859,0.1530603,0.151091921,0.148824846,0.146287601,0.14335601,0.140197878,0.136751118,0.133134873,0.129337397,0.125276462,0.121146727,0.116726686,0.112093529,0.107321092,0.102070405,0.09631294,0.090152738,0.083688805,0.07738261,0.071841617,0.067065824,0.062459517,0.05811331,0.054080903,0.050353905,0.046902111,0.043780898,0.040857696,0.038214733,0.035791597,0.033559761,0.031467205,0.02957434,0.027864385,0.026146039,0.024639131,0.02317753,0.021932401,0.020673847,0.019460601,0.018356429,0.01734623,0.016260517,0.015221791,0.014307242,0.013589027,0.012870812,0.012033454,0.011395787,0.010748051,0.009969426,0.009462648,0.008861898,0.008277929,0.007791288,0.007435537,0.006906944,0.006562939,0.0061451,0.005737328,0.005431919,0.005128188,0.004703636,0.004522404,0.004225385,0.003931723,0.003666587,0.003460184,0.003166522,0.002988646,0.002805736,0.002691627,0.002631217,0.002533889,0.00233252,0.002090878,0.001869372,0.00171499,0.001609271,0.00153208,0.001469991,0.00140958,0.001344136,0.001273657,0.001194787,0.001107527,0.001006843,0.000892734,0.000771913,0.000651092,0.000552086,0.000515168,0.000496709,0.000327224,0.000392669,0.000337292,0.000280238,0.000194656,0.000228218,0.000255067,0.000102362,4.7E-05,5.87E-05,8.39E-05,0,7.38E-05\nSRI-1052904-001.txt,CCOC(=O)C1C(NC(=O)NC1(O)C(F)(F)F)c1cccc(Oc2ccccc2)c1,1,0.954154144,0.913402272,0.876046389,0.843218492,0.814918581,0.788882663,0.765110738,0.74213121,0.717510287,0.692549765,0.666004449,0.637930937,0.609178227,0.580821716,0.551842607,0.522976698,0.493940989,0.464735481,0.435360173,0.405475467,0.375590761,0.345309856,0.314462953,0.284068848,0.254297342,0.225488032,0.198206918,0.173472795,0.151851663,0.133960459,0.119844464,0.109730075,0.102847537,0.099372308,0.097985612,0.098313891,0.099196849,0.100696744,0.1020325,0.103781434,0.106000147,0.109594236,0.113918462,0.118825667,0.123749851,0.127774099,0.130921049,0.133111462,0.135624494,0.139009164,0.142999451,0.14642374,0.148953752,0.149848029,0.149429191,0.148563214,0.147629316,0.146887859,0.145438903,0.142569292,0.137645108,0.130773889,0.121672638,0.110618693,0.097283775,0.083230039,0.069657401,0.058382717,0.049609744,0.043451684,0.039093497,0.035720148,0.033410875,0.03170156,0.030411085,0.029573407,0.029177208,0.02868479,0.02850367,0.028345191,0.028277271,0.028413111,0.02867913,0.028826289,0.028922509,0.029075329,0.029171548,0.029369648,0.029533787,0.029579067,0.029211168,0.029714907,0.029437568,0.029137589,0.029160228,0.029001749,0.029024389,0.028865909,0.028254631,0.028237651,0.027937672,0.027343374,0.027099995,0.026567957,0.02563406,0.02535672,0.024309624,0.024015305,0.023381387,0.022634269,0.02215883,0.021185313,0.020228776,0.019436379,0.01894962,0.018411922,0.017398785,0.016849767,0.01589323,0.014738594,0.014002796,0.013187759,0.012067082,0.011325624,0.010465307,0.009797429,0.008852212,0.008076795,0.007261757,0.006667459,0.005869402,0.005444903,0.004873245,0.004426106,0.004052547,0.003548809,0.00310167,0.002433792,0.002320593,0.002048914,0.001782894,0.001330096,0.001160296,0.001052757,0.000950877,0.000899937,0.000899937,0.000905597,0.000809377,0.000662218,0.000526378,0.000424499,0.000345259,0.000288659,0.000254699,0.000226399,0.000203759,0.000192439,0.000175459,0.00015282,0.0001415,0.00014716,0.00015848,0.00015282,7.92E-05,5.66E-05,0.000356579,0.000232059,0.000198099,0.000266019,0.000447139,9.62E-05,0,0.00012452,0.000435819,0.000305639,0.000237719,0.000407519,4.53E-05,6.79E-05\nSRI-1052914-001.txt,COc1ccc(cc1)S(=O)(=O)CCNC(=O)CC1(Cn2cnnn2)CCCCC1,0.227420446,0.244655671,0.265460044,0.289833565,0.317682308,0.348442725,0.382537476,0.420811887,0.461857084,0.506424466,0.552682496,0.600490288,0.649706954,0.699252358,0.748187249,0.795854153,0.841219897,0.88334523,0.92100913,0.952661833,0.977082316,0.993049555,1,0.996665665,0.98229515,0.957358079,0.921572679,0.874046662,0.816893339,0.751380697,0.680349964,0.608628884,0.5382885,0.472550438,0.412414998,0.359676147,0.314333884,0.276923583,0.246149078,0.221578315,0.202126461,0.186328286,0.172765526,0.160104445,0.148903896,0.138609723,0.130710636,0.124441147,0.119223616,0.113804148,0.10714487,0.098855994,0.089651351,0.079873765,0.070861667,0.063314799,0.05804561,0.054903821,0.05279051,0.049714468,0.044755232,0.038692377,0.032591953,0.027261712,0.023171282,0.019846339,0.017596837,0.016234925,0.015305068,0.014520795,0.013905587,0.013384303,0.012543675,0.011909682,0.011101927,0.010477327,0.009523988,0.009012098,0.008711538,0.008392193,0.008655183,0.008547169,0.008537777,0.008749108,0.008786678,0.008955743,0.009138896,0.009082541,0.00928448,0.009354924,0.00958504,0.009819852,0.010073449,0.009970132,0.010233122,0.010458542,0.010740316,0.010730924,0.010890596,0.011228726,0.011172371,0.011209941,0.011139497,0.011153586,0.011139497,0.01077319,0.010618214,0.010726228,0.01024721,0.010068753,0.009556862,0.009237517,0.008913476,0.008528384,0.008190254,0.007678363,0.0070068,0.006307059,0.00596893,0.005597926,0.004621107,0.004358117,0.003771086,0.003324943,0.003076042,0.002803659,0.002324642,0.002033475,0.001728219,0.001310253,0.001131795,0.000779577,0.000502498,0.000422662,0.000469625,0.000385092,0.000493106,0.000361611,0.000361611,0.000333434,0.00018785,0.000474321,0.000441447,0.000286471,0.000277079,0.000366307,0.000361611,0.000333434,0.000305256,0.000244205,0.000178457,0.000131495,0.000103317,8.92E-05,9.86E-05,0.000117406,0.000131495,0.000154976,0.000173761,0.00018785,0.000197242,0.000211331,0.000220724,0.000197242,0.00015028,6.11E-05,0,5.64E-05,7.51E-05,7.04E-05,0.000244205,0.000183154,0.000347522,0.000122102,0.00022542,0.000253597,0.000277079,0.000192546,5.17E-05,0.00026299,0.0003757\nSRI-0000675.txt,CN(C)C1=CC=C(C=C1)N1C(=O)CN(CC2=CC=CC=C2)CC1=O,0.619341262,0.54603317,0.4856618,0.437364703,0.397692089,0.365781507,0.341632959,0.323521548,0.30885993,0.299890469,0.293422108,0.290403539,0.290317295,0.291783457,0.296958145,0.303512751,0.313172171,0.3251602,0.33895937,0.355000906,0.373802275,0.39484601,0.41795962,0.44374682,0.471086426,0.501099621,0.532578979,0.566128212,0.600712382,0.636762715,0.673675495,0.711028124,0.748156517,0.784663947,0.819662093,0.853194077,0.884768303,0.914220907,0.9409568,0.962888856,0.980060199,0.991410016,0.998438969,1,0.995006425,0.983613485,0.965295087,0.938964545,0.905613675,0.865216604,0.819584472,0.768743154,0.714383048,0.659220864,0.604170799,0.550811132,0.499400599,0.451517478,0.407782732,0.368687958,0.333638065,0.303159148,0.277121838,0.25437908,0.23476701,0.218820343,0.205383401,0.19393009,0.184667397,0.176232654,0.169678048,0.164072135,0.158707708,0.154455838,0.150988797,0.14810822,0.144710174,0.141527741,0.139207755,0.136818774,0.133972695,0.131609587,0.129462091,0.126590139,0.123830305,0.121286083,0.118422755,0.115447309,0.112187255,0.108918576,0.105391163,0.101820628,0.098077603,0.093687742,0.089159889,0.085270248,0.080932134,0.076585395,0.071729812,0.067098466,0.062760352,0.058223874,0.05371327,0.048685198,0.044459202,0.04008659,0.035550113,0.032048573,0.028055438,0.024096801,0.020940241,0.017999293,0.015351577,0.012824604,0.010530492,0.008762473,0.007287687,0.005838774,0.004700342,0.004269118,0.00357916,0.002915075,0.002785708,0.002173369,0.002216492,0.001457537,0.001466162,0.001129807,0.001310921,0.001052187,0.001190178,0.001448913,0.000896946,0.000465722,0.000664085,0.00100044,0.000344979,0.0004226,0.000465722,0.000664085,0.000853824,0.000526093,0.000707207,0.000370853,0.000232861,0.000543342,0.000655461,0.000698583,0.000681334,0.000612338,0.000508844,0.000465722,0.000405351,0.000362228,0.000319106,0.000293232,0.000284608,0.000284608,0.000267359,0.000241485,0.000215612,0.000198363,0.000181114,0.000155241,0.000137992,9.49E-05,0,8.62E-05,0.00082795,0.000810701,0.000396726,7.76E-05,0.000103494,0.000163865,0.000508844,0.000396726,0.00057784,0.001043562,0.000482971,0.000413975,0.000396726\nSRI-0000339.txt,CCOC(CN(C)C)OCC1=CC=CC=C1,1,0.711798259,0.498649054,0.351546082,0.247473231,0.188431902,0.152406685,0.137396177,0.12238567,0.126388472,0.12238567,0.119383568,0.126388472,0.127389172,0.130391274,0.138396878,0.145401781,0.153407385,0.159411588,0.166416492,0.176423496,0.188431902,0.197438207,0.210947663,0.22455719,0.231261883,0.24507155,0.260482338,0.274091864,0.28549985,0.300610427,0.315921145,0.332032423,0.339937957,0.355048534,0.365455819,0.378364855,0.396977885,0.409986991,0.414390073,0.421895327,0.421294906,0.421294906,0.426398479,0.42789953,0.423196237,0.416391474,0.40758531,0.400480336,0.392074452,0.381667167,0.369558691,0.355849094,0.343140198,0.334734314,0.330031022,0.320524367,0.311818273,0.310217152,0.302211548,0.295606925,0.287000901,0.281396978,0.271790253,0.259081357,0.250675473,0.243370359,0.233763635,0.218753127,0.208245772,0.199839888,0.189032323,0.173221255,0.16321425,0.152506755,0.1430001,0.129390573,0.118783148,0.111478035,0.10107075,0.089762834,0.079855899,0.072150505,0.067046933,0.058440909,0.049634744,0.042429701,0.035524867,0.031021715,0.022715901,0.02091464,0.015610928,0.015010507,0.015310718,0.014009807,0.014310017,0.011007705,0.007905534,0.007905534,0.004202942,0.002001401,0.004102872,0.003302312,0.005403783,0.003902732,0.003602522,0.006304413,0.004303012,0.003402382,0.003902732,0.003902732,0.001801261,0.004503152,0.005003502,0.005103573,0.001601121,0.004703292,0.003202242,0.006604623,0.006504553,0.004303012,0.004403082,0.005804063,0.008305814,0.001200841,0.002501751,0.005603923,0.006104273,0.005503853,0.004703292,0.002001401,0.002201541,0.005403783,0.003902732,0.003602522,0.004002802,0.004102872,0.002902031,0.002601821,0.006904833,0.004202942,0.005203643,0.002301611,0.001501051,0.00070049,0.0010007,0.002301611,0.003002101,0.002501751,0.002701891,0.003002101,0.003302312,0.003302312,0.003202242,0.002801961,0.002501751,0.002201541,0.002201541,0.002201541,0.002301611,0.002101471,0.002101471,0.002201541,0.002001401,0.001701191,0.001100771,0.0010007,0.002601821,0,0.001501051,0.004102872,0.00080056,0.001701191,0.002201541,0.006104273,0.006104273,0.003702592,0.001601121,0.00050035,0.004603222,0.007405184\nSRI-0000650.txt,CC(=O)OC1C(OC2OC(C)(C)OC12)C(N=[N+]=[N-])C(=O)CC1=CC=CC=C1,0.974032719,0.974032719,0.974032719,0.974032719,1,0.974032719,0.948065438,0.948065438,0.922098156,0.922098156,0.922098156,0.870163594,0.870163594,0.864970138,0.841599585,0.818229031,0.77927811,0.745520644,0.703972994,0.649441703,0.589716957,0.535185666,0.48844456,0.431316541,0.374188522,0.327447416,0.278109582,0.252142301,0.215788107,0.187224098,0.158660088,0.148273176,0.137886263,0.125421968,0.120228512,0.115035056,0.112438328,0.1098416,0.098675669,0.108543236,0.096857959,0.09322254,0.094001558,0.091924176,0.086211374,0.086730719,0.086990392,0.089327447,0.094001558,0.093482212,0.095819268,0.092183848,0.083354973,0.085172682,0.082835627,0.081796936,0.092703194,0.090625811,0.098935341,0.090625811,0.088548429,0.100753051,0.095040249,0.081796936,0.081017917,0.077122825,0.077642171,0.072189042,0.061802129,0.056868346,0.060503765,0.053492599,0.050636198,0.055050636,0.055829655,0.062061802,0.058945728,0.06465853,0.07296806,0.067514931,0.072448715,0.073227733,0.072708387,0.078680862,0.082316281,0.084393664,0.081796936,0.088029083,0.084393664,0.09322254,0.095299922,0.098935341,0.104388471,0.102051415,0.104907816,0.102830434,0.108543236,0.104907816,0.114256037,0.114775383,0.112698001,0.123344586,0.117372111,0.117112438,0.120488185,0.122565567,0.13477019,0.135808881,0.131654116,0.127239678,0.124383277,0.130615425,0.12646066,0.129317061,0.133731498,0.123863931,0.135549208,0.132692807,0.116852766,0.125162296,0.119709166,0.113996365,0.11815113,0.11633342,0.117112438,0.125681641,0.129576733,0.112957673,0.109322254,0.100493378,0.115035056,0.105167489,0.107504544,0.100753051,0.096338613,0.097636977,0.090366139,0.080758245,0.077122825,0.067514931,0.077382498,0.074006751,0.063100493,0.076084134,0.062321475,0.05816671,0.054271618,0.049337834,0.044404051,0.040249286,0.037133212,0.034017138,0.03323812,0.033497793,0.034017138,0.034017138,0.033497793,0.032978447,0.032199429,0.030901065,0.029343028,0.027265645,0.025447936,0.022591535,0.018177097,0.011944949,0.007530512,0.007011166,0.025967281,0.018956115,0.017138406,0.011165931,0,0.007270839,0.010646585,0.012983641,0.018177097,0.015580369,0.019215788,0.02311088,0.017138406\nSRI-0000644.txt,CCOC(=O)CNC(=O)C(OC(C)=O)C(OC(C)=O)C(COC(C)=O)OC(C)=O,1,0.915478077,0.836238774,0.783412573,0.71737982,0.659270998,0.617010037,0.548335975,0.487585843,0.450607501,0.384574749,0.352879028,0.331748547,0.294770206,0.265715795,0.231378764,0.202324353,0.183835182,0.162704702,0.138932911,0.12308505,0.1098785,0.096671949,0.083465399,0.078182779,0.064976228,0.064976228,0.054410988,0.047543582,0.04199683,0.034337031,0.034865293,0.033808769,0.029846804,0.036450079,0.029054411,0.030903328,0.023243529,0.024564184,0.031167459,0.013734812,0.020602219,0.024035922,0.023243529,0.025356577,0.026677232,0.028526149,0.025620708,0.021922874,0.021658743,0.025092446,0.020073957,0.017168516,0.014527205,0.014527205,0.009772847,0.021394612,0.015055468,0.012414157,0.017960909,0.024035922,0.012414157,0.00528262,0.016111992,0.01558373,0.01822504,0.016376123,0.016111992,0.012678288,0.027205494,0.012678288,0.029318542,0.027469625,0.024564184,0.026413101,0.027205494,0.026941363,0.016640254,0.023243529,0.024300053,0.01558373,0.010301109,0,0.031167459,0.025620708,0.019281564,0.01320655,0.017168516,0.019545695,0.010036978,0.01558373,0.010301109,0.019545695,0.009508716,0.000528262,0.018753302,0.015847861,0.019017433,0.011621764,0.005546751,0.017168516,0.022451136,0.016111992,0.015055468,0.010829371,0.014527205,0.017432647,0.029846804,0.020602219,0.011357633,0.017168516,0.017432647,0.013470681,0.008716323,0.016111992,0.015319599,0.00792393,0.007395668,0.019017433,0.01320655,0.000528262,0.009772847,0.016376123,0.009772847,0.021130481,0.01558373,0.023771791,0.012678288,0.010829371,0.010036978,0.024828315,0.030903328,0.019017433,0.008980454,0.014263074,0.017960909,0.011885895,0.013998943,0.024300053,0.023771791,0.020073957,0.027997887,0.016111992,0.016904385,0.014527205,0.016904385,0.016640254,0.016904385,0.017432647,0.016640254,0.016376123,0.016111992,0.015319599,0.014527205,0.013470681,0.012942419,0.012942419,0.012150026,0.011621764,0.011357633,0.011093502,0.010829371,0.010829371,0.011885895,0.013734812,0.014527205,0.011357633,0.016640254,0.031167459,0.022715267,0.020073957,0.006075013,0.012678288,0.01822504,0.025092446,0.017696778,0.016376123,0.022187005,0.020338088,0.024300053,0.009772847\nSRI-0000526.txt,COC(=O)C1=CC(=CC(N)=C1)C1=CC=C(Cl)C=C1,0.608354157,0.596426463,0.589269846,0.583305999,0.581516845,0.581516845,0.585095153,0.591059,0.600601156,0.614318004,0.631016776,0.650697472,0.674552861,0.701032342,0.731090132,0.762459968,0.794426188,0.827227348,0.858477907,0.889012804,0.916744694,0.940957913,0.961533186,0.978351235,0.990338568,0.997137353,1,0.997853015,0.990278929,0.978589789,0.961831378,0.941136829,0.916458429,0.888016842,0.857577366,0.824823917,0.789780352,0.754396846,0.718464667,0.682401283,0.646469104,0.611234695,0.576888899,0.544212981,0.513403746,0.483894631,0.455930151,0.429844284,0.404790162,0.380893026,0.358331793,0.336778449,0.315839382,0.295753144,0.276782147,0.257990064,0.239692981,0.222719872,0.206665196,0.191439494,0.17684596,0.163278208,0.150610996,0.138599808,0.127411631,0.116736344,0.106907924,0.097532756,0.089099877,0.081704706,0.074870137,0.068202556,0.062847021,0.058618654,0.054610948,0.0511877,0.048253487,0.046279454,0.044842167,0.043923734,0.043595723,0.043822349,0.044353131,0.045366985,0.046732706,0.04839662,0.050692701,0.053119987,0.055511489,0.05799245,0.060867024,0.063538828,0.066150993,0.06859617,0.07141707,0.074464596,0.077285495,0.080434407,0.083684703,0.086261085,0.089087949,0.092117583,0.094765531,0.097186853,0.100043536,0.102291906,0.104224193,0.106096841,0.107790574,0.10941274,0.110337136,0.111589544,0.112430447,0.112525868,0.112997012,0.112889663,0.112394664,0.111887737,0.110850027,0.109394848,0.107885995,0.106412925,0.104104916,0.101665703,0.099375585,0.096572577,0.093572762,0.090447706,0.087465782,0.084465967,0.081251454,0.078537903,0.075257787,0.071989599,0.068542495,0.064910512,0.06163636,0.058207148,0.054760045,0.051408363,0.048038789,0.044806384,0.041365244,0.037876393,0.034906397,0.032007968,0.030069717,0.029014116,0.027582793,0.024815568,0.021612982,0.018678769,0.016496001,0.015058714,0.014074679,0.013251668,0.012440585,0.011581791,0.010693178,0.00975089,0.008731072,0.007544267,0.006220293,0.004848608,0.003560417,0.002618129,0.002063491,0.001717588,0.001383613,0.001419396,0.000667951,0.000745481,0.000530782,0.000381686,0.00062024,0.000286265,0.000494999,0.000143132,0,2.39E-05,0.000161024\nSRI-0000297.txt,CCCCN1C=NN=C1S,0.364329471,0.362432909,0.36091566,0.360978879,0.361484628,0.362749003,0.365593845,0.370461686,0.37766862,0.388162927,0.400743452,0.416548132,0.435260872,0.457324205,0.48318066,0.511565864,0.542985567,0.577629425,0.614233062,0.65279648,0.693319678,0.733273908,0.774113199,0.814952491,0.853263034,0.889392531,0.921716262,0.950120432,0.97308147,0.989575233,0.998375279,1,0.993735025,0.978455061,0.95453942,0.923258798,0.883348822,0.836914674,0.783937388,0.726231343,0.664055734,0.600211151,0.535791277,0.472307041,0.41181305,0.354770801,0.302615358,0.255694426,0.214380994,0.178453797,0.148197318,0.122391438,0.100865464,0.083126292,0.068446906,0.05650489,0.046908289,0.038791005,0.032431202,0.027354739,0.02306851,0.019604124,0.016715029,0.01431904,0.012561559,0.011278219,0.009564992,0.008471308,0.007523027,0.00658739,0.005790835,0.005266119,0.005006922,0.004520138,0.004178757,0.003698295,0.00364772,0.003369558,0.003192545,0.002813233,0.002762658,0.002712083,0.003002889,0.002731049,0.002636221,0.002712083,0.002882774,0.002718405,0.002851164,0.002832199,0.003085073,0.002920705,0.002964958,0.002964958,0.003110361,0.003091395,0.003135648,0.003053464,0.002819555,0.002958636,0.003186223,0.003205189,0.003211511,0.003432776,0.003540248,0.003179902,0.003034498,0.00354657,0.003590823,0.003230476,0.003148292,0.003337948,0.003186223,0.00304082,0.003293695,0.003356914,0.00324312,0.003186223,0.003502317,0.003085073,0.002933349,0.003091395,0.003236798,0.00297128,0.003053464,0.002945992,0.003211511,0.003104039,0.003097717,0.002781624,0.002762658,0.002598289,0.002908061,0.002731049,0.00266783,0.002522427,0.002503461,0.002560358,0.002471852,0.002433921,0.002174724,0.002339093,0.002174724,0.001801733,0.001947137,0.001909205,0.001839665,0.001814377,0.001694262,0.001510927,0.001371846,0.001232765,0.001144259,0.001112649,0.001093684,0.001062074,0.001036787,0.000998856,0.000954603,0.000904028,0.000834487,0.000745981,0.000651153,0.000550003,0.00047414,0.000410922,0.000537359,0.000341381,0.000284484,0.000391956,0.000335059,0.00030345,0,0.00030345,0,0.000410922,0.000290806,0.00030345,0.00037299,0.000360347,0.000189656\nSRI-1052846-001.txt,COc1ccc(cc1)-c1cn(CC(=O)N[C@@H](Cc2c[nH]c3ccccc23)C(O)=O)c(=O)cn1,1,0.993744521,0.976872991,0.949773524,0.909455362,0.856877374,0.793569185,0.72131155,0.64530976,0.568782876,0.497118827,0.433742146,0.37922359,0.334522027,0.298792738,0.271442139,0.250986265,0.236352097,0.226466613,0.220165473,0.216809432,0.216033204,0.217471508,0.22087321,0.225599065,0.232288318,0.240438705,0.250152962,0.261070372,0.27326399,0.287094535,0.301829157,0.317748667,0.334572253,0.352519086,0.371255845,0.39094234,0.411320591,0.432077824,0.453239151,0.474405045,0.496000146,0.517588399,0.538989443,0.559952148,0.580590663,0.600530574,0.61948422,0.637611411,0.65476147,0.670500621,0.684929318,0.697698258,0.708442157,0.717448678,0.72465846,0.729544126,0.732856791,0.734632981,0.734815623,0.733863603,0.73117877,0.726140141,0.718391566,0.707846289,0.69436048,0.678550555,0.66154661,0.645595138,0.629691609,0.612788117,0.592882452,0.567748667,0.538489462,0.506426706,0.473907346,0.441737288,0.410747553,0.381698385,0.353192577,0.32604745,0.300151136,0.275161181,0.250812756,0.226560217,0.20258849,0.178116781,0.154163318,0.130867366,0.109055377,0.089078938,0.071570445,0.05695454,0.044838545,0.035364005,0.028188468,0.02304482,0.019330344,0.017035907,0.01557934,0.014807678,0.014593074,0.014823659,0.015355603,0.016026812,0.016933171,0.018029022,0.01919108,0.0206271,0.021951253,0.023289104,0.024932879,0.0264899,0.028206732,0.029996621,0.031699755,0.033443984,0.035302363,0.037092252,0.038955198,0.040836408,0.04274958,0.04455545,0.046646698,0.048521059,0.050356608,0.052251516,0.053904424,0.055730841,0.05732439,0.058810637,0.060251224,0.061534282,0.062778529,0.063892643,0.065011324,0.065983891,0.066760118,0.067474704,0.068095686,0.068584253,0.068963234,0.069143593,0.06918697,0.069070536,0.068908442,0.06867329,0.068508913,0.068004365,0.06686742,0.065445098,0.064050172,0.062796793,0.061723773,0.060774036,0.059849412,0.058840316,0.057703372,0.056363238,0.054797085,0.052940988,0.050849741,0.048308738,0.045206111,0.041665145,0.038256593,0.03537542,0.032756794,0.030158716,0.027663373,0.0250242,0.022380461,0.019665948,0.017074719,0.014561112,0.012150241,0.009622936,0.007093348,0.004693892,0.002333248,0\nSRI-1053280-001.txt,CC(C)C(NS(=O)(=O)c1cccc2ccccc12)C(O)=O,0.787814471,0.825971415,0.862423348,0.897817,0.929330284,0.956904408,0.97812884,0.99265082,1,0.999000512,0.989711148,0.971250007,0.945733654,0.913397261,0.873476515,0.826089002,0.773292491,0.7158513,0.65435336,0.59026851,0.526183659,0.463333471,0.402070705,0.344394339,0.292420938,0.245856532,0.20617096,0.172070764,0.143732325,0.120873435,0.102506364,0.088096092,0.077031166,0.068400289,0.062315168,0.057576417,0.054724935,0.052955252,0.051197328,0.049321818,0.04715234,0.046082299,0.046111696,0.046958321,0.047358117,0.047264047,0.045676624,0.043495388,0.041372944,0.039773763,0.038286289,0.03585812,0.03316538,0.031513284,0.030131639,0.029143909,0.027627038,0.024352243,0.020030925,0.016203472,0.013005109,0.010535785,0.008754343,0.0071728,0.006308536,0.005326686,0.005026839,0.004632923,0.004268404,0.004009713,0.004144938,0.004103782,0.003727504,0.003321829,0.002522239,0.002245909,0.001605061,0.001311094,0.001352249,0.001605061,0.001322852,0.001246421,0.001240542,0.000964212,0.001240542,0.001352249,0.001017127,0.000975971,0.000999488,0.001058282,0.000870143,0.000811349,0.000764315,0.000658487,0.000840746,0.000793711,0.000611452,0.000817229,0.00062909,0.000617331,0.00035864,0.00053502,0.000781953,0.000646728,0.000511503,0.000393916,0.000658487,0.000834867,0.000740797,0.00071728,0.000587934,0.00071728,0.000793711,0.000729039,0.000676125,0.000564417,0.000605572,0.000482106,0.000746677,0.000417433,0.000605572,0.000770194,0.00080547,0.000876022,0.001028885,0.001046523,0.000587934,0.000934816,0.000940695,0.000846626,0.000634969,0.000599693,0.000887781,0.000834867,0.00062909,0.000564417,0.000905419,0.000482106,0.000664366,0.000746677,0.00062909,0.00062909,0.000476227,0.000458589,0.000440951,0.000593814,0.000611452,0.000493865,0.000299847,0.000111708,4.12E-05,5.88E-06,0,1.76E-05,4.7E-05,0.000111708,0.00018226,0.000229294,0.000276329,0.000305726,0.000323364,0.000341002,0.000335123,0.000282209,0.00026457,0.000346881,0.0005409,0.000758435,0.000305726,0.000188139,0.00027045,0.000246932,0.000146984,0.000111708,0.000546779,0.000470348,0.000346881,0.000499744,0.000229294,0.000311605,0.00062909\nSRI-1053055-001.txt,CSc1ccc(cc1)-c1ccc(=O)n(CC(=O)N[C@@H](C(C)C)C(O)=O)n1,0.746385738,0.728119734,0.70985373,0.689888563,0.671480962,0.651798989,0.631125837,0.611868655,0.592753069,0.572363111,0.552822735,0.535264715,0.518556278,0.503122212,0.488112938,0.474094842,0.460359939,0.446625037,0.433173329,0.420004814,0.407969075,0.396499724,0.385879954,0.37639296,0.367189159,0.358693344,0.350480722,0.343400875,0.336037835,0.329241182,0.324186172,0.320207298,0.317842629,0.317276241,0.319796667,0.323888818,0.330218201,0.339294564,0.349985132,0.363394362,0.378955864,0.396570522,0.415827705,0.43725132,0.460020107,0.484686292,0.510442774,0.537388669,0.564943432,0.592568993,0.621822919,0.650864449,0.679976778,0.709188225,0.737946561,0.765770358,0.793395919,0.820341815,0.845262875,0.869136117,0.891734987,0.912195744,0.930858219,0.949081744,0.964091019,0.976763944,0.987001402,0.99493083,0.998272517,1,0.997876046,0.994732594,0.988289934,0.981139289,0.971638135,0.959574076,0.94372938,0.926058083,0.904861023,0.880761225,0.854820667,0.826657038,0.798762443,0.770825369,0.741769678,0.712558232,0.683360945,0.653823825,0.622984014,0.591365419,0.558911403,0.526952976,0.495985727,0.466576045,0.439007122,0.414086063,0.391317276,0.372739759,0.356229557,0.342763689,0.33164833,0.322784362,0.315761154,0.310621186,0.305481217,0.301289948,0.298047378,0.29476233,0.292256064,0.289325007,0.285870042,0.283717769,0.280248644,0.276538805,0.273097999,0.269260722,0.264403948,0.259787888,0.255766535,0.250060179,0.244721974,0.238845702,0.233068547,0.226994039,0.2195602,0.212593631,0.205032355,0.198179063,0.190433711,0.183736177,0.177222718,0.170171191,0.162978067,0.155728304,0.148251986,0.141016383,0.134290529,0.128400096,0.120881299,0.114112966,0.106934002,0.100845334,0.094416833,0.088172408,0.0820979,0.076872973,0.073432168,0.071379013,0.068419637,0.062600003,0.05583167,0.049629724,0.044971185,0.041799414,0.039562182,0.037721422,0.035866502,0.033841666,0.031689393,0.029338884,0.026889257,0.024014839,0.02074395,0.017204027,0.013706583,0.01105872,0.009515314,0.008694052,0.006966569,0.005833794,0.004842615,0.003908075,0.003738159,0.003610722,0.002690342,0.002152273,0.001642524,0.001047817,0.00043895,8.5E-05,0\nSRI-0000479.txt,CC1=CC(C)=C(C#N)C(=O)N1,0.820651494,0.687163936,0.582124547,0.503345004,0.449262223,0.414249093,0.39549206,0.387989246,0.387676629,0.391428036,0.398305615,0.40674628,0.416437414,0.425190697,0.433943979,0.440821558,0.448011754,0.45191947,0.452982368,0.45029386,0.442728523,0.432474678,0.418782043,0.403370014,0.385269476,0.365824684,0.341753157,0.310929098,0.274384144,0.232712267,0.189852445,0.150931599,0.116950106,0.08743904,0.06658747,0.050550206,0.039264724,0.031699387,0.026259847,0.023133675,0.022570964,0.021007878,0.019882456,0.019382268,0.021132925,0.022289609,0.022602226,0.023289984,0.025915968,0.027822934,0.029604852,0.032355883,0.034012755,0.037982994,0.040171314,0.044641741,0.048424409,0.052769789,0.058365637,0.064836814,0.071745655,0.079248468,0.08653245,0.093628861,0.104820558,0.114855571,0.126203576,0.138895836,0.150931599,0.165718394,0.179567338,0.194979367,0.211423034,0.230555208,0.250687758,0.268850819,0.290140053,0.314180318,0.336313618,0.360947855,0.387082656,0.412967363,0.441821933,0.46951982,0.497624109,0.526822558,0.556896336,0.585938477,0.616825059,0.648493185,0.678660748,0.710047518,0.741246718,0.77141428,0.80061273,0.828717019,0.855570839,0.881111667,0.904651744,0.927691634,0.94738652,0.964549206,0.977929223,0.987464049,0.99656121,1,0.99928098,0.99565462,0.988120545,0.976866325,0.962423409,0.944760535,0.919438539,0.892459672,0.859072152,0.821339252,0.780605227,0.735369514,0.689289734,0.635488308,0.583187445,0.527854195,0.474678004,0.423158685,0.370732775,0.322839815,0.277822934,0.235869701,0.198668251,0.166249844,0.13861448,0.113886457,0.092972365,0.074309116,0.060428911,0.04789296,0.0377329,0.030761536,0.02504064,0.020195073,0.014567963,0.010285107,0.011222959,0.008909591,0.006815056,0.006377392,0.0065337,0.006158559,0.005033137,0.003376266,0.001969489,0.00109416,0.000500188,0.000218832,0.00018757,0.000250094,0.000500188,0.000875328,0.001219207,0.001500563,0.001719395,0.00200075,0.002282106,0.002438414,0.002313368,0.001938227,0.001750656,0.000812805,0.000687758,0.001344254,0.001062899,0.00109416,0.001781918,0,6.25E-05,0.001375516,0.001156684,0.001250469,0.001563086,0.003063649,0.00181318\nSRI-1052870-001.txt,OC(=O)C(Cc1c[nH]c2ccccc12)NS(=O)(=O)c1ccc2NC(=O)c3cccc1c23,1,0.986317701,0.965007455,0.935829219,0.898969694,0.854268851,0.801593334,0.744917146,0.686240622,0.627697453,0.573074943,0.525093549,0.483779942,0.449774229,0.42307641,0.403393103,0.389977516,0.382269555,0.378962332,0.379682453,0.383283058,0.389284066,0.397072041,0.406006876,0.415741845,0.425423471,0.434571675,0.442991756,0.449907584,0.455065784,0.45720481,0.456871421,0.453430843,0.446803063,0.436953408,0.423239104,0.405857517,0.384251221,0.359409714,0.33150636,0.302648178,0.27454479,0.248748456,0.225944625,0.206469354,0.190429325,0.177635176,0.167745515,0.160506965,0.155282087,0.151692151,0.149427771,0.148395597,0.147870176,0.148003531,0.148331586,0.14904904,0.150182564,0.151446776,0.153204405,0.154834012,0.15581551,0.156026212,0.155108725,0.153087052,0.149739823,0.145963188,0.142221226,0.139231391,0.137036355,0.134337235,0.129845814,0.12236189,0.112125504,0.100283514,0.087972113,0.07575406,0.064128107,0.05349432,0.043874038,0.03527526,0.028084718,0.022118383,0.017357583,0.014111704,0.012004683,0.010900498,0.010705799,0.01112987,0.012148708,0.013594284,0.015450596,0.01751761,0.020051369,0.022979861,0.026204402,0.029684987,0.033538968,0.037886365,0.04243913,0.047229268,0.051979399,0.056566837,0.060842221,0.064512171,0.067848732,0.070921248,0.073631037,0.07625281,0.079082619,0.082173805,0.085398347,0.088948277,0.09267957,0.096994962,0.101473047,0.106180505,0.110861291,0.114928641,0.118185188,0.120481574,0.121543086,0.121703113,0.121225699,0.120068171,0.118745283,0.11760109,0.116395554,0.115587419,0.114835292,0.114317872,0.114112504,0.113856461,0.113667096,0.113549743,0.113523072,0.113427056,0.113336374,0.112976313,0.112712269,0.112346874,0.111642756,0.110925302,0.110063824,0.109079659,0.108036817,0.107196676,0.106617912,0.105505725,0.103038644,0.100016803,0.097096312,0.094658569,0.09269824,0.09103396,0.089476365,0.08779875,0.085918434,0.08371273,0.081213644,0.07823181,0.074929922,0.070902578,0.066104439,0.060684862,0.055580004,0.051304619,0.047410632,0.043647333,0.039945377,0.036280762,0.032357436,0.028356764,0.024673478,0.021099545,0.017400257,0.013876998,0.010161707,0.006779806,0.00339257,0\nSRI-0000096.txt,CCN(CC)CCC(O)(C1=CC=CC=C1)C1=CC=CC=C1,1,0.922022017,0.843455965,0.766536507,0.690675574,0.619166353,0.551538389,0.486850772,0.427691005,0.37194204,0.320780015,0.274322544,0.232804855,0.195521265,0.163177456,0.135185359,0.111662589,0.092491532,0.077319345,0.066028416,0.057089763,0.050385773,0.045681219,0.042388032,0.040153368,0.03897723,0.038871377,0.038953707,0.039565299,0.04058854,0.041235416,0.042776157,0.044775593,0.045845879,0.046692699,0.046869119,0.047010256,0.048645088,0.050891513,0.051985322,0.051985322,0.050997365,0.048774464,0.046927926,0.045787072,0.044787354,0.042141043,0.039494731,0.036154498,0.032908355,0.029673974,0.025992661,0.021393959,0.017477418,0.01384315,0.011443828,0.009832518,0.008985698,0.007421434,0.006915694,0.006703989,0.006551091,0.006362909,0.005821886,0.005327907,0.006045352,0.005633703,0.00569251,0.005716033,0.005610181,0.005657226,0.005292623,0.004633986,0.005292623,0.005339669,0.004833929,0.004986827,0.005127964,0.005139725,0.004916259,0.004140008,0.004316428,0.004998589,0.004716315,0.004434042,0.004445804,0.004386997,0.004481088,0.004116485,0.004081201,0.004104723,0.004445804,0.003845973,0.004128246,0.00382245,0.003669552,0.003646029,0.00398711,0.003457847,0.00398711,0.003646029,0.003634268,0.003175574,0.003246142,0.003269665,0.00348137,0.003940064,0.003281426,0.003234381,0.00221114,0.003093244,0.003281426,0.003163813,0.003105006,0.002164095,0.002752164,0.002916823,0.0023758,0.002622789,0.002434607,0.002411084,0.001787731,0.002705119,0.002493414,0.002352277,0.00279921,0.003034437,0.00305796,0.002058242,0.002011197,0.001775969,0.002187618,0.002258186,0.002058242,0.002117049,0.002199379,0.002105288,0.002175856,0.001740685,0.001364321,0.002199379,0.001517219,0.001893583,0.001693639,0.00203472,0.002105288,0.001940629,0.001764208,0.00152898,0.00127023,0.001082047,0.000929149,0.000858581,0.000835058,0.000893865,0.000940911,0.000976195,0.000999718,0.001011479,0.000999718,0.000987956,0.000964434,0.000905627,0.00084682,0.000717444,0.000529262,0.000388126,0.000693922,0.000305796,0.000541024,0.000670399,0.000541024,0.00042341,0,0.000541024,0.000329319,0.000493978,0.000352842,0.000246989,0.000658638,0.000788013\nSRI-0000082.txt,CCOC(=O)CN1C2=CC=CC=C2C2=C1C=CC=C2,0.684008529,0.707036247,0.730916844,0.755366027,0.780099502,0.804264392,0.827860697,0.852309879,0.875053305,0.897512438,0.918834399,0.940156361,0.959772566,0.979673063,0.99445629,1,0.99090263,0.964491827,0.919715707,0.858422175,0.791243781,0.72753376,0.672892679,0.630220327,0.599061834,0.575920398,0.557953092,0.54098081,0.520483298,0.493646055,0.459729922,0.422032694,0.386268657,0.357299218,0.339954513,0.335334755,0.34222317,0.356190476,0.371556503,0.381100213,0.37868941,0.359539446,0.324415068,0.279513859,0.233094527,0.19169865,0.158962331,0.135656006,0.120778962,0.112190476,0.108488984,0.107789623,0.109489694,0.112921109,0.118115139,0.125157072,0.13410661,0.145347548,0.159513859,0.176835821,0.196082445,0.214533049,0.230135039,0.242638237,0.253552239,0.264531628,0.275078891,0.284744847,0.295457001,0.311141436,0.333867804,0.359132907,0.372793177,0.35857285,0.314885572,0.255238095,0.195397299,0.145526652,0.109066098,0.084218905,0.068093817,0.058171997,0.051940299,0.04821322,0.046390903,0.045788202,0.046140725,0.047434257,0.049230988,0.051226724,0.053401564,0.055761194,0.057890547,0.059638948,0.061307747,0.062797441,0.06406823,0.065691542,0.067729922,0.070646766,0.074046908,0.078157783,0.082541578,0.086507463,0.089557925,0.091124378,0.091104478,0.089882018,0.087243781,0.083880597,0.080548685,0.077563611,0.075684435,0.075238095,0.076778962,0.080039801,0.084588486,0.089043355,0.091673063,0.090632552,0.085412935,0.075957356,0.063764037,0.050649609,0.03799005,0.027266525,0.01890263,0.012778962,0.008346837,0.00561194,0.003894812,0.002626866,0.001833689,0.001256574,0.000958067,0.000687989,0.000432125,0.000341151,0.000159204,3.7E-05,0.000113717,2.27E-05,0,0,0,0,0,0,0,2.84E-06,4.26E-05,7.11E-05,8.24E-05,8.24E-05,7.39E-05,6.54E-05,5.69E-05,4.55E-05,3.7E-05,3.41E-05,3.41E-05,3.7E-05,3.98E-05,6.25E-05,9.1E-05,0.000156361,0.000181947,0.000102345,6.25E-05,4.83E-05,0.000204691,0.000130775,0.000133618,8.81E-05,9.38E-05,0.000133618,0.000153518,9.95E-05,0.000119403,8.53E-05,0.000105188\nSRI-0000294.txt,CSC(=S)NNC(=O)C1CCCCC1,0.511940111,0.486023591,0.460107072,0.433450081,0.407533562,0.381617043,0.358884553,0.338521574,0.322305237,0.310013403,0.302756777,0.300239172,0.303423202,0.311420299,0.324896889,0.34177965,0.363475479,0.388133196,0.415086376,0.44537168,0.476101267,0.506238476,0.536968063,0.566364801,0.592503462,0.616198565,0.635228695,0.651074795,0.661293308,0.666402565,0.666247066,0.661241475,0.652363216,0.639930692,0.625350799,0.609512103,0.593436456,0.578849158,0.565994565,0.55660538,0.55106665,0.550104036,0.553887848,0.562506942,0.57630934,0.59480633,0.61764989,0.644314286,0.674355234,0.707202571,0.741686351,0.777673289,0.813734274,0.848751194,0.881828077,0.912764996,0.940325363,0.963050448,0.98071811,0.993357966,1,0.999303956,0.992706351,0.97860036,0.958844568,0.932372694,0.899947426,0.862338855,0.82045776,0.774829877,0.725840251,0.674910588,0.622470363,0.570378159,0.518596954,0.468629905,0.420336322,0.374308584,0.33200542,0.292471621,0.256469874,0.223689179,0.194751535,0.169168228,0.146154359,0.126354138,0.108886404,0.094173226,0.081207562,0.070293005,0.061118557,0.053091841,0.046212856,0.040511222,0.035468608,0.031166466,0.027545558,0.024642907,0.022362254,0.019718769,0.017719494,0.016090456,0.014942724,0.013698732,0.012476953,0.011595791,0.011070056,0.010581345,0.009996372,0.009692778,0.0092559,0.008789402,0.008685736,0.008285881,0.008308096,0.007989693,0.007989693,0.00792305,0.007597242,0.007093722,0.006938222,0.007249221,0.006530963,0.006716081,0.006264393,0.006116299,0.005783086,0.005634992,0.0058053,0.005375827,0.004716806,0.0050204,0.004924139,0.004694592,0.004265119,0.004139238,0.004265119,0.004057786,0.003369147,0.003102578,0.003213648,0.003147006,0.002961888,0.002858222,0.002391724,0.002288058,0.002228821,0.002088131,0.001873394,0.001636443,0.001406897,0.001221779,0.001095899,0.001014447,0.000977423,0.000962614,0.000940399,0.000910781,0.000888566,0.000844138,0.00079971,0.000747877,0.000673829,0.000584973,0.000451688,0.000355427,0.000340617,0.000318403,0.000510926,0.000488712,0.000318403,0.000303594,5.92E-05,7.4E-05,0.000155499,7.4E-05,8.15E-05,0.000133285,0.000199927,0.000192523,0\nSRI-0000280.txt,CSC1=NN=C(S1)C1=CC=C(Cl)C=C1Cl,1,0.944683467,0.870928089,0.840196681,0.846342963,0.821757837,0.797172711,0.717271051,0.668100799,0.618930547,0.582052858,0.50829748,0.446834665,0.403810695,0.379225569,0.317762754,0.268592502,0.213275968,0.21942225,0.170251998,0.170251998,0.13952059,0.127228027,0.108789183,0.09649662,0.102642901,0.090350338,0.090350338,0.095881991,0.081130916,0.071296865,0.076213891,0.066994468,0.076828519,0.073755378,0.073755378,0.080516288,0.0829748,0.064535956,0.075599262,0.100184388,0.111247695,0.111862323,0.12292563,0.129071911,0.132145052,0.154886294,0.199754149,0.17947142,0.200983405,0.247080516,0.247080516,0.273509527,0.28580209,0.33558697,0.363859865,0.400737554,0.428395821,0.437615243,0.417947142,0.423478795,0.382298709,0.381684081,0.3755378,0.407498463,0.416103258,0.444376152,0.395820529,0.331899201,0.245236632,0.165334972,0.100184388,0.062077443,0.055931162,0.039336202,0.047326368,0.046097111,0.030731407,0.043638599,0.045482483,0.019668101,0.036263061,0.036877689,0.055316533,0.038721573,0.041794714,0.031346036,0.052243393,0.01659496,0.032575292,0.040565458,0.025199754,0.045482483,0.043638599,0.035033805,0.040565458,0.027043639,0.025814382,0.044253227,0.053472649,0.027043639,0.008604794,0.020282729,0.037492317,0.039336202,0.038721573,0.039336202,0.02335587,0.032575292,0.025199754,0.025199754,0.00983405,0.032575292,0.001843884,0.041794714,0.066994468,0.04302397,0.017209588,0.022126613,0.031960664,0.04302397,0.049170252,0.004917025,0.030731407,0.02335587,0.055316533,0.009219422,0.039336202,0.039336202,0.017824216,0.022126613,0.020897357,0.036877689,0.015980332,0.032575292,0.047940996,0.052858021,0.036877689,0.039336202,0.032575292,0.029502151,0.011063307,0.011677935,0.052243393,0.031960664,0.019668101,0.011677935,0.007990166,0.007990166,0.010448679,0.013521819,0.014751076,0.017824216,0.021511985,0.02335587,0.025814382,0.027043639,0.028887523,0.029502151,0.031960664,0.032575292,0.033804548,0.034419176,0.032575292,0.031346036,0.031346036,0.028272895,0.049170252,0.041794714,0.034419176,0.019668101,0.022741242,0.030731407,0.032575292,0.027043639,0.017209588,0.027043639,0.017209588,0,0.053472649,0.041180086\nSRI-0000295.txt,CSC(=S)NNC(=O)C1=CC=C(C=C1)C(F)(F)F,1,0.982130093,0.960136361,0.936080717,0.907901248,0.877659867,0.846043877,0.813740584,0.78143729,0.749133997,0.71957992,0.692019025,0.668375763,0.649062517,0.635728817,0.627137516,0.624938143,0.627618629,0.633941827,0.644663771,0.659097157,0.675111343,0.691812833,0.709201628,0.72459724,0.738686974,0.750027492,0.757244185,0.760955628,0.760749436,0.755732116,0.747168307,0.734982405,0.720542145,0.703888767,0.686692418,0.669997801,0.653736185,0.639653324,0.627240611,0.618353769,0.612924067,0.611233299,0.613645736,0.620147633,0.630821466,0.644945566,0.662959806,0.683132182,0.705971298,0.730343102,0.75603453,0.782420135,0.808276516,0.832442129,0.854765767,0.874793809,0.890972948,0.903653709,0.91217628,0.916849948,0.916478804,0.910031891,0.898464563,0.882361027,0.859755595,0.833184417,0.801836477,0.767512509,0.730274372,0.691276736,0.649894155,0.607858635,0.56610491,0.524151867,0.482769286,0.44275444,0.404196679,0.368023863,0.333198164,0.300791774,0.271038379,0.244130423,0.219524935,0.197648045,0.177956782,0.159860065,0.144045197,0.130553417,0.118099467,0.107418761,0.098043932,0.089617584,0.082414637,0.076208281,0.070496783,0.065651289,0.061383131,0.057692308,0.053953373,0.050853632,0.048118161,0.045726343,0.043038984,0.040997691,0.038763952,0.036921977,0.035458019,0.033856601,0.032193325,0.030969924,0.029794634,0.028426898,0.026660527,0.026055699,0.024949139,0.023629516,0.022818497,0.021801287,0.021141475,0.020083026,0.019155166,0.018165448,0.017478144,0.016419695,0.015746137,0.01489388,0.014213449,0.013258096,0.012570792,0.012089679,0.011443614,0.010660087,0.010227085,0.009581019,0.009154891,0.008611921,0.00793149,0.007594711,0.007237312,0.006797438,0.006323198,0.005663386,0.005574036,0.004886732,0.004529334,0.004323143,0.004165063,0.003972618,0.003711442,0.00336779,0.003044757,0.002783582,0.00259801,0.002460549,0.002336834,0.002219992,0.002103151,0.001986309,0.00187634,0.001738879,0.001580799,0.001408973,0.001202782,0.000982845,0.000817892,0.000762908,0.000817892,0.0007904,0.000350525,0.000405509,0.000460494,0.000295541,0.000247429,0.000144334,0.000164953,0.000371144,0.000274922,8.93E-05,0.000240556,0\nSRI-1053156-001.txt,CC(C)[C@H](NC(=O)CCCn1c(=O)[nH]c2ccccc2c1=O)C(O)=O,0.678851911,0.694706102,0.716043565,0.740113905,0.76739012,0.79494663,0.821732329,0.849411468,0.876775275,0.902404757,0.924845882,0.945657791,0.962195201,0.977961799,0.98796483,0.995129873,1,0.995743018,0.979345756,0.941470883,0.879438078,0.800114571,0.71688445,0.639172639,0.572847816,0.519206344,0.478067786,0.447352701,0.425197126,0.408918989,0.396619291,0.386490127,0.377562729,0.36902424,0.360985027,0.353579981,0.346753044,0.340409616,0.333058878,0.323416727,0.310591475,0.294367646,0.276719567,0.259528719,0.245040967,0.23393953,0.226494192,0.222575316,0.221333259,0.222405387,0.225299434,0.229404005,0.234503624,0.24033201,0.246517772,0.253052151,0.259404338,0.265486741,0.271062861,0.275826126,0.279646898,0.28242182,0.284588851,0.285711783,0.286358214,0.286416024,0.285988574,0.284888416,0.283301245,0.280925745,0.27790031,0.273622306,0.268489402,0.262662768,0.256251018,0.249368022,0.242231009,0.235023921,0.228286328,0.221998959,0.216251158,0.211042925,0.206514408,0.202451881,0.199119873,0.196246849,0.1939204,0.192124759,0.190761825,0.189770281,0.189318305,0.18939013,0.189941961,0.191192778,0.193025207,0.195553119,0.19859432,0.202159323,0.206146521,0.210594453,0.215504873,0.220537921,0.225874039,0.231607825,0.237332852,0.243446789,0.249651821,0.25611963,0.26279766,0.269452917,0.276188758,0.282705618,0.288851088,0.294444727,0.299889459,0.304580898,0.308702987,0.312606096,0.315519413,0.318327619,0.320813486,0.322789567,0.32446433,0.326037486,0.326978226,0.327754293,0.327957507,0.327577357,0.326661143,0.32520536,0.323104899,0.319928805,0.315295177,0.309479054,0.302741461,0.295366197,0.287439102,0.279279011,0.270891181,0.26264525,0.254341508,0.24581353,0.237714754,0.229391742,0.221019678,0.212743966,0.206489882,0.202504437,0.195861443,0.180748283,0.163555683,0.148412742,0.136293483,0.127180389,0.119954032,0.113449434,0.106899288,0.099867385,0.092358981,0.084281227,0.075555291,0.065951681,0.055149809,0.043556104,0.032202401,0.023516757,0.018089544,0.014354612,0.011535894,0.009212949,0.00735249,0.005814371,0.004507495,0.003431863,0.002538422,0.001828925,0.001371694,0.000898696,0.000511539,0.000187447,0\nSRI-1053097-001.txt,CC(Cc1c[nH]c2ccccc12)NC(=O)CCn1ccc2ccc(F)cc12,0.994354846,1,0.995440452,0.978939232,0.948108005,0.902729649,0.840632952,0.763989127,0.676054992,0.581607219,0.488679294,0.403784859,0.328726019,0.265413442,0.214107675,0.173679685,0.142587912,0.118943401,0.101161165,0.087764779,0.077712062,0.070308225,0.064793344,0.060668039,0.057867174,0.056130203,0.055261718,0.05517487,0.055782809,0.056976976,0.058779083,0.061167418,0.064011707,0.067307609,0.070955247,0.07520214,0.079750832,0.084672972,0.08994902,0.095398765,0.101200247,0.107123316,0.113213569,0.119494889,0.125730613,0.131901201,0.138026194,0.144116447,0.150004777,0.15577369,0.161238634,0.166286704,0.170844081,0.174949845,0.178493265,0.181326698,0.18326342,0.184948282,0.186748217,0.188991081,0.191663844,0.194065206,0.195480837,0.195752239,0.194970602,0.192671287,0.188315833,0.182559947,0.176997299,0.17313254,0.171395569,0.169686824,0.164675664,0.154080144,0.138634133,0.121260085,0.103951174,0.088275015,0.074872116,0.063128023,0.052971088,0.044277551,0.036676133,0.030036563,0.024458717,0.019692904,0.015858541,0.012536585,0.009928958,0.007853278,0.006164074,0.004965565,0.003929896,0.003089636,0.002403533,0.001962777,0.001730457,0.001461226,0.001170284,0.001035669,0.000907567,0.000768609,0.000740384,0.000723014,0.000605768,0.000568858,0.00064485,0.000486352,0.000488523,0.000492865,0.000449441,0.000395161,0.00037562,0.000440756,0.00044727,0.000275744,0.000369106,0.000230149,0.000440756,0.000184553,0.000299627,0.000319168,0.000178039,0.000180211,0.000195409,0.000323511,0.000299627,0.000223635,0.000206265,0.000230149,0.00024969,0.000241005,0.000230149,6.95E-05,0.000206265,0.000267059,0.000184553,0.000110732,7.17E-05,0.000151985,0.000158499,0.000112903,0.000108561,0.000151985,0.000104218,0.000102047,0.000121588,0.00012593,0.000128102,9.77E-05,6.51E-05,5.21E-05,3.91E-05,3.04E-05,2.17E-05,1.95E-05,2.61E-05,3.47E-05,4.56E-05,4.99E-05,5.43E-05,5.86E-05,6.08E-05,6.08E-05,6.73E-05,7.17E-05,0.000102047,0.000173697,4.34E-05,0.000112903,4.99E-05,0,5.86E-05,6.3E-05,4.99E-05,6.08E-05,8.68E-05,0.000106389,2.82E-05,9.12E-05,6.51E-05\nSRI-0000326.txt,ClC1=NC2=CC=CC=C2N1,0.86310777,0.793163867,0.734100126,0.686905653,0.649743539,0.622755083,0.606081587,0.598027441,0.598310042,0.607777197,0.622613782,0.642113295,0.667123539,0.694535897,0.722513459,0.75034972,0.776631671,0.80248972,0.827499965,0.851521103,0.873987933,0.893204844,0.905215413,0.90992073,0.906826242,0.89604499,0.880869283,0.862599087,0.84401803,0.823868534,0.80076585,0.770386175,0.732757768,0.689547979,0.64467084,0.602464286,0.567096692,0.543075554,0.529496545,0.524720578,0.528917212,0.539444123,0.556583911,0.582512611,0.616636758,0.656243377,0.694691328,0.727402467,0.753331167,0.779076175,0.811956875,0.857667689,0.914583657,0.969662715,1,0.984527561,0.918695511,0.832643314,0.77812946,0.792457362,0.868844583,0.938618926,0.904975202,0.745870484,0.537960464,0.354467225,0.225699792,0.146726767,0.099588815,0.072247107,0.054725806,0.042602196,0.034194797,0.028768846,0.02421896,0.021209252,0.018496277,0.016037643,0.014525724,0.012589903,0.010272569,0.009170423,0.008421529,0.007503073,0.006188976,0.005341171,0.004903138,0.003956423,0.003730342,0.002571675,0.002501024,0.001879301,0.001639089,0.00166735,0.001342358,0.000791285,0.001215187,0.001639089,0.001370618,0.000734764,0.001427138,0.000833675,0.000833675,0.000706504,0.000932585,0.001229317,0.001370618,0.000169561,0.000819545,0.001356488,0.000763024,0.000593463,0.000847805,0.001116276,0.001384748,0.001271707,0.001045626,0.000819545,0.000989106,0.000692374,0.001045626,0.000494553,0.001257577,0.000960846,0.000777154,0.000876065,0.000847805,0.001116276,0.001045626,0.000678244,0.000551073,0.001455398,0.00179452,0.000861935,0.000720634,0.000649984,0.000649984,0.000649984,0.001201057,0.001045626,0.000777154,0.000791285,0.000423902,0.000452163,0.000310862,0.000551073,0.000635854,0.000508683,0.000254341,0.000169561,0.000141301,0.000155431,0.000183691,0.000197821,0.000226081,0.000240211,0.000268472,0.000296732,0.000310862,0.000296732,0.000296732,0.000296732,0.000268472,0.000211951,0.000155431,0,5.65E-05,0.000438033,0.000621724,0.000183691,0.000296732,0.000649984,0.000240211,0.000494553,0.000522813,0.000466293,0.000536943,0.000861935,0.000438033,0.001031496,0.000890195\nSRI-0000497.txt,CC1=CC=C(\\C=C(\\C(O)=O)C2=CC=C(C)C=C2)C=C1,0.981092978,0.990458686,0.995141539,0.99865368,0.997482966,0.993970826,0.988117259,0.979922265,0.96821513,0.949483715,0.92372802,0.888606617,0.847631647,0.803144536,0.755262357,0.710892318,0.668863706,0.631869161,0.598972114,0.570289635,0.544533939,0.523461097,0.505315039,0.489159194,0.476164275,0.465627854,0.457667002,0.452164649,0.448418366,0.44701351,0.446896439,0.448652509,0.451942214,0.456987988,0.463953733,0.472944813,0.483165141,0.495925917,0.510466178,0.526703973,0.544931982,0.56434241,0.583963567,0.605036409,0.626284858,0.647708914,0.669940762,0.692020417,0.713924466,0.735898757,0.756479899,0.776054227,0.795043199,0.813060479,0.829345103,0.844950713,0.859256831,0.871959072,0.88442717,0.895911869,0.907841439,0.919841251,0.931443021,0.943290641,0.953932426,0.964070805,0.972558477,0.980109579,0.986384603,0.990774778,0.993865462,0.997108338,0.999520007,0.999976586,1,0.997740523,0.994603011,0.987567023,0.978213023,0.968531223,0.95628556,0.94451989,0.932168864,0.918038353,0.90338102,0.886955911,0.867627432,0.846343862,0.823526657,0.79814559,0.771219181,0.743227423,0.714884451,0.685909293,0.6563839,0.626495586,0.596677515,0.56732773,0.539078414,0.511332506,0.483387576,0.457233838,0.431419607,0.40554684,0.380774544,0.357500761,0.335175256,0.312650729,0.292315437,0.272518673,0.252991173,0.235079257,0.218103913,0.201386125,0.185651736,0.170654897,0.157027793,0.144067995,0.131857454,0.120349341,0.109859749,0.10021307,0.090823948,0.082429933,0.074726638,0.067035051,0.060572713,0.054801096,0.049731907,0.044030532,0.0392189,0.035496031,0.031831698,0.028717601,0.025907888,0.022325505,0.020311878,0.018075815,0.015816338,0.014165633,0.012210541,0.011086656,0.009892529,0.008569622,0.007738416,0.007071109,0.006567702,0.006356974,0.006111124,0.005549182,0.004811632,0.004109204,0.003570676,0.003196048,0.002950198,0.002786298,0.002610691,0.002423377,0.002271184,0.002130698,0.001978506,0.001791192,0.00159217,0.001358028,0.001065349,0.000772671,0.000725842,0.001334613,0.001018521,0.001334613,0.000714135,0.000995106,0.000526821,0.000772671,0.000889742,0.000796085,0.000971692,0.000924864,0.000386335,0,0.000632185\nSRI-0000695.txt,CCOC(=O)C1=NN(C(=O)C2=C(Cl)C=CC=C2)C(N)=N1,1,0.990904366,0.978560291,0.966865904,0.961018711,0.959719335,0.953222453,0.951923077,0.950623701,0.944776507,0.943477131,0.939579002,0.936980249,0.927234927,0.918139293,0.907744283,0.893451143,0.876559252,0.861616424,0.842775468,0.820036383,0.797946985,0.773258836,0.749870062,0.723882536,0.700493763,0.675805613,0.65352131,0.630262474,0.609017672,0.58660343,0.566787942,0.547362266,0.525727651,0.505132536,0.484277547,0.463032744,0.444776507,0.425935551,0.406899688,0.386044699,0.365514553,0.349012474,0.330301455,0.312240125,0.296387734,0.280795218,0.26422817,0.252079002,0.238435551,0.222972973,0.213357588,0.204326923,0.193801975,0.18639553,0.174701143,0.166255198,0.157809252,0.148128898,0.141696985,0.137279106,0.127793659,0.122076403,0.114410083,0.109732328,0.102975572,0.096218815,0.089072245,0.081340956,0.077962578,0.070945946,0.063084719,0.057757277,0.051130457,0.048921518,0.045348233,0.03456341,0.030080561,0.028586279,0.024818087,0.018581081,0.016632017,0.013318607,0.010914761,0.010135135,0.008056133,0.009160603,0.008900728,0.00714657,0.005782225,0.006431913,0.00656185,0.004093035,0.003443347,0.004677755,0.006172037,0.003118503,0.005912162,0.004872661,0.002858628,0.00220894,0.002663721,0.004028067,0.004742723,0.002663721,0.007406445,0.004677755,0.003703222,0.00545738,0.003508316,0.003703222,0.005002599,0.003703222,0.004028067,0.007081601,0.005587318,0.001949064,0.002338877,0.003183472,0.002533784,0.00110447,0.004093035,0.00545738,0.003053534,0.002923597,0.004028067,0.005132536,0.00272869,0.002858628,0.003248441,0.004807692,0.004872661,0.005587318,0.001494283,0.00110447,0.005392412,0.00162422,0.003053534,0.004093035,0.003898129,0.006951663,0.005847193,0.003183472,0.002598753,0.002143971,0.003118503,0.003378378,0.003508316,0.003443347,0.003118503,0.00272869,0.00272869,0.00272869,0.00272869,0.002793659,0.002858628,0.003053534,0.003183472,0.00331341,0.003378378,0.003443347,0.003508316,0.003573285,0.003638254,0.003768191,0.003768191,0.003963098,0.005002599,0.004287942,0.00383316,0.003768191,0.002014033,0,0.002079002,0.005392412,0.006172037,0.0060421,0.003768191,0.004028067,0.006366944,0.00383316\nSRI-0000093.txt,OC1=CC=C(C=C1)C(=O)\\C=C\\C1=CC=CC=C1,0.404227423,0.415614203,0.425699636,0.434483723,0.441641128,0.447497186,0.451726561,0.454003917,0.454979927,0.454979927,0.453288177,0.450457749,0.446000638,0.439754176,0.431523161,0.421567862,0.409400275,0.395443336,0.379989849,0.363300084,0.346024713,0.328619207,0.310790763,0.292897252,0.275686948,0.258541711,0.241851946,0.225552584,0.209936429,0.19490588,0.180656139,0.167558089,0.155865493,0.145724752,0.137584832,0.131572612,0.127593746,0.126217572,0.126848725,0.129731207,0.134500641,0.141261135,0.149443349,0.15889763,0.169770377,0.181518281,0.194173873,0.207659073,0.221791694,0.236799469,0.252243196,0.268246501,0.28464021,0.301281175,0.318335318,0.335552129,0.353042222,0.370847892,0.388318465,0.406176189,0.423907032,0.441293018,0.459079167,0.476832784,0.494667734,0.512775967,0.530708518,0.548416587,0.566150683,0.584353263,0.60184661,0.619567693,0.636817037,0.653936247,0.670554439,0.687484953,0.704474028,0.721801454,0.739135386,0.75643353,0.77387157,0.791491798,0.808838744,0.826032781,0.842833161,0.859363512,0.875513218,0.890722703,0.905860613,0.920087581,0.933260458,0.945873756,0.957221496,0.967202821,0.975817733,0.983573757,0.989703098,0.994592906,0.997706377,0.999326553,1,0.99862708,0.995666517,0.991121565,0.985603857,0.978137383,0.968393553,0.957280056,0.944634224,0.930176267,0.914387684,0.896842283,0.877920709,0.857151223,0.83472252,0.811272261,0.786634523,0.760256235,0.733289088,0.70568428,0.676765114,0.647374209,0.617482285,0.587574095,0.556618322,0.526134286,0.49626839,0.467280902,0.439181583,0.413440955,0.389297729,0.365857229,0.342748573,0.320134429,0.298756564,0.278650764,0.259511214,0.241503836,0.224407399,0.208472415,0.193399572,0.179247431,0.166120101,0.153653204,0.142113516,0.131979283,0.125274096,0.121513205,0.11622974,0.105991398,0.094240242,0.083699337,0.075962834,0.070767209,0.067077892,0.064003462,0.060912764,0.057662652,0.054168537,0.05039138,0.046269366,0.041584519,0.036255506,0.030532836,0.024888247,0.020489697,0.017561668,0.015401433,0.013280238,0.011585235,0.009939032,0.008455497,0.007290792,0.005973179,0.004821488,0.003764144,0.002895495,0.002017087,0.001213505,0.000416431,0\nSRI-0000534.txt,CC1=CC=C(C=C1)C1=NNC(=O)S1,0.593802633,0.566201198,0.540289646,0.514941389,0.492409605,0.472131,0.452978983,0.43664344,0.421997781,0.409717958,0.399015361,0.390509613,0.384144384,0.379638027,0.377384849,0.376314589,0.37620193,0.377159531,0.378567767,0.381102593,0.383074124,0.385270973,0.38763681,0.389270365,0.39079126,0.392368485,0.393833051,0.395860911,0.397945101,0.400705245,0.40465394,0.409447577,0.415824072,0.423265193,0.432401832,0.443346646,0.456634765,0.472423913,0.491023901,0.512130549,0.535586136,0.5613118,0.588597791,0.617292018,0.647011441,0.677153334,0.707216367,0.737132943,0.766903063,0.796042292,0.823581765,0.849724267,0.87426138,0.897029748,0.917995573,0.937615123,0.954288643,0.969424369,0.981394379,0.990885893,0.997166628,1,0.999205755,0.995566872,0.989021388,0.980295955,0.969322976,0.955623652,0.939671149,0.920845843,0.898173236,0.872565863,0.84347733,0.811606122,0.777228253,0.740095873,0.701487661,0.662124635,0.623279839,0.584412512,0.546570381,0.50876768,0.471426882,0.432756707,0.392926146,0.351788742,0.308786832,0.26641018,0.224833406,0.186394182,0.151244599,0.120866122,0.095134825,0.073740896,0.057112439,0.044274955,0.034529959,0.027409915,0.021929059,0.017974731,0.015237119,0.013096599,0.011479944,0.0101731,0.009514046,0.008849358,0.008122708,0.007638275,0.007294665,0.006889093,0.006331431,0.006032885,0.005734339,0.005542819,0.00508655,0.005035854,0.004630282,0.004523256,0.004202178,0.004196545,0.003616351,0.003317805,0.003199513,0.003278375,0.002760144,0.002292609,0.002095456,0.001853239,0.001723681,0.001689884,0.001481465,0.00120545,0.000867474,0.001132222,0.000811144,0.000580193,0.00024785,0,0.000377407,0.000270381,9.01E-05,4.51E-05,0.000259116,0.000163355,0.000146457,4.51E-05,0,0.00015209,0.000501332,0.000816777,0.001047728,0.001211083,0.001250514,0.001216716,0.001149121,0.001092792,0.001047728,0.001008297,0.000980133,0.000968867,0.0009745,0.000985766,0.001008297,0.001036462,0.001092792,0.001154754,0.001335008,0.001306843,0.001430768,0.001239248,0.001092792,0.001374439,0.001340641,0.000833676,0.001278679,0.001019563,0.001278679,0.001363173,0.001154754,0.000946335,0.00101393\nSRI-1052861-001.txt,CSCC[C@H](NC(=O)CCCn1nnc2ccccc2c1=O)c1nnc2ccccn12,1,0.979320881,0.957156998,0.935746256,0.915540541,0.893785505,0.86893183,0.842292133,0.814619556,0.785053365,0.755637803,0.727362713,0.698442073,0.666336719,0.629604923,0.587859356,0.542434154,0.496341883,0.452401446,0.412829231,0.37900241,0.351071613,0.328757101,0.311198141,0.297835256,0.287635566,0.279779222,0.273433465,0.268068945,0.263651231,0.259444397,0.255773369,0.252767258,0.250559477,0.248971424,0.247413496,0.245898606,0.24453004,0.243865123,0.243535893,0.243135652,0.242728955,0.242408332,0.24349716,0.245689878,0.249175848,0.253907729,0.260320193,0.268628421,0.278834567,0.289290325,0.298394732,0.305056808,0.309721983,0.313388707,0.317410484,0.322383371,0.328535462,0.335313737,0.342360992,0.348745481,0.354430625,0.35882682,0.362424686,0.364806765,0.366444311,0.367111379,0.367044672,0.366332415,0.364507661,0.361755466,0.357555087,0.351835514,0.344928129,0.337181529,0.32906051,0.321131004,0.313347822,0.306248924,0.299535204,0.293249699,0.287177225,0.28055173,0.272893355,0.264337666,0.254768463,0.244004992,0.233146841,0.221918575,0.211303581,0.201452488,0.192782751,0.185627905,0.17970606,0.174885953,0.170106731,0.16415476,0.155958427,0.145298244,0.13225383,0.117655793,0.102459546,0.087413927,0.073631434,0.061213204,0.050408848,0.041448614,0.033841883,0.027722069,0.022775004,0.018634877,0.015385609,0.012736702,0.010488036,0.008725684,0.007281804,0.006096144,0.005028835,0.004290756,0.003636598,0.003087881,0.002513341,0.002296006,0.001930195,0.001641849,0.001398692,0.001308315,0.001060854,0.000953262,0.000920985,0.000826304,0.00070365,0.000673524,0.000617576,0.00051644,0.000535807,0.000402393,0.000398089,0.000393786,0.00038733,0.000393786,0.000333534,0.00036366,0.000296953,0.000206576,0.000191513,0.000215183,0.000225943,0.000225943,0.000230246,0.000238854,0.000247461,0.000243157,0.000236702,0.000228094,0.000213032,0.000202272,0.000189361,0.000174299,0.000159236,0.000146325,0.000133414,0.000120503,0.000118351,0.000118351,0.000109744,0.000124806,0.000157084,7.32E-05,9.9E-05,0.000182906,0.000206576,0.000109744,0.000178602,0.000101136,0.000139869,7.53E-05,2.15E-06,9.47E-05,0.000103288,0\nSRI-0000291.txt,CSC1=NN=C(S1)C1=CC=C(C=C1)C(F)(F)F,0.545290548,0.530629287,0.517242918,0.503219103,0.491107626,0.478358704,0.465609781,0.454135751,0.443299166,0.433100028,0.424175782,0.417163875,0.410789413,0.40632729,0.403777506,0.402056401,0.401418955,0.400845254,0.401100232,0.400972743,0.40065402,0.399761595,0.398869171,0.397466789,0.39485326,0.391793518,0.388096331,0.383697953,0.378534639,0.373052602,0.366869375,0.360367424,0.353291772,0.345655167,0.338082307,0.33052857,0.32259874,0.314981259,0.307548637,0.300893699,0.294825212,0.289591779,0.285830847,0.283038833,0.282280272,0.283893011,0.287532828,0.293046738,0.300912823,0.310576506,0.322171651,0.335927739,0.351296565,0.368093271,0.386171244,0.40526913,0.425272189,0.446065682,0.467630485,0.489609628,0.512513068,0.536315306,0.560754991,0.585264795,0.610099697,0.634673245,0.659406155,0.683578113,0.707017007,0.730749127,0.754755348,0.77857671,0.802831536,0.825977205,0.848064714,0.869004819,0.887522629,0.904580688,0.91964354,0.934311176,0.947952523,0.960242485,0.972379459,0.981399322,0.989424769,0.995537877,0.999088452,1,0.998508376,0.995748234,0.990374563,0.98308218,0.973029654,0.961351641,0.947123843,0.930964583,0.912867488,0.891532166,0.86822076,0.843009766,0.815306357,0.786417298,0.75544379,0.723800964,0.691788419,0.658296999,0.625627884,0.592295826,0.559346235,0.526473138,0.493262194,0.460363599,0.428006833,0.395637319,0.363082944,0.331344501,0.299657054,0.269008644,0.239928351,0.212001836,0.18586017,0.161082639,0.138682781,0.118494862,0.100346771,0.084601851,0.070514292,0.058409189,0.048312043,0.039642775,0.032331268,0.026791861,0.022049262,0.017408654,0.014272419,0.011493154,0.00905811,0.007305133,0.005717892,0.004908335,0.004092404,0.003340218,0.002447793,0.002148193,0.001497998,0.001396007,0.001370509,0.001230271,0.001166526,0.00100079,0.000784059,0.000592825,0.000452587,0.00035697,0.000293225,0.000229481,0.000197608,0.00017211,0.000159362,0.000152987,0.000133864,0.000127489,0.000121115,0.00011474,0.00011474,7.65E-05,0,0.000305974,0.000344221,0.000146613,4.46E-05,0.000101991,2.55E-05,0,0.00011474,7.01E-05,7.65E-05,0.000254978,0.000133864,0.000305974,5.74E-05\nSRI-1053135-001.txt,CCOC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)c1ccc(C)cc1,0.990297479,0.999611899,1,0.989909378,0.968175732,0.934799061,0.890167466,0.836609551,0.777618225,0.716686395,0.658471271,0.607630062,0.563697048,0.527642482,0.499117071,0.477887955,0.460733899,0.446995129,0.435856636,0.425222673,0.415714203,0.406205732,0.396037491,0.385869249,0.374924805,0.36312654,0.351056605,0.338055227,0.324471698,0.310888169,0.296955349,0.282867289,0.269105234,0.255913686,0.243447888,0.231630218,0.220658607,0.211025945,0.202456678,0.195055595,0.188756719,0.183781266,0.180012807,0.177397008,0.175514719,0.174381464,0.173907981,0.174008888,0.174571634,0.175258572,0.176127918,0.17690412,0.177451342,0.177668678,0.177311626,0.176279277,0.174645373,0.173290901,0.172425436,0.172083907,0.172064502,0.171622067,0.170325811,0.167795393,0.163398211,0.156816021,0.148825025,0.140861196,0.135303592,0.132905129,0.132272524,0.130153494,0.123621757,0.112188307,0.097176566,0.081862108,0.067991384,0.055925329,0.046102497,0.037987309,0.03114121,0.025474938,0.020732346,0.016699979,0.01347098,0.010606796,0.008580909,0.00688879,0.005565366,0.004517494,0.003535599,0.003011662,0.00242563,0.001967671,0.00154076,0.001420449,0.001218637,0.001144897,0.000908156,0.000927561,0.000908156,0.000605437,0.000698581,0.000927561,0.000613199,0.000512293,0.000582151,0.000473483,0.00057827,0.000609318,0.00038422,0.000349291,0.000477364,0.000434673,0.000376458,0.00034541,0.00053946,0.000477364,0.000512293,0.000318243,0.000287195,0.00050065,0.000225098,0.000380339,0.000372577,0.000434673,0.000438554,0.000310481,0.000221217,0.000399744,0.000322124,0.000333767,0.000368696,0.000256147,0.000368696,0.000302719,0.000256147,0.000287195,0.00023286,0.000228979,0.000186288,0.000294957,0.000263909,0.000228979,0.000326005,0.000228979,0.000228979,0.000236742,0.000240623,0.000217336,0.000182407,0.000139716,0.000112549,9.31E-05,7.76E-05,5.82E-05,5.43E-05,5.05E-05,6.6E-05,8.15E-05,9.31E-05,0.000104787,0.000128073,0.000131954,0.000131954,0.000104787,0.000139716,0.000294957,0.000287195,5.43E-05,3.49E-05,0,6.21E-05,0.000291076,8.54E-05,0.000294957,0.000302719,0.00026779,0.000170764,0.000263909,0.00023286\nSRI-0000723.txt,CCOC(=O)C(C#N)C1C(=O)N(C)C2=CC=CC=C12,1,0.879987121,0.774609958,0.686795656,0.610689928,0.546292773,0.490677048,0.451453327,0.415449463,0.392910459,0.375640313,0.366566168,0.363931739,0.362760882,0.368615168,0.380031028,0.392910459,0.40988789,0.428328894,0.450867898,0.47457776,0.499458478,0.526680912,0.557123203,0.586394637,0.616836929,0.647571935,0.677136083,0.705529374,0.733044522,0.75953517,0.782074174,0.803998478,0.823083453,0.838070427,0.850627872,0.856569973,0.856862688,0.850305886,0.837806984,0.819922138,0.800310277,0.775927173,0.749348711,0.718760062,0.687703071,0.655972836,0.619881158,0.576383807,0.52337324,0.464596201,0.405936247,0.353101308,0.310599186,0.278078623,0.251558704,0.231654129,0.216198812,0.204431695,0.196147879,0.190205778,0.18473202,0.179346076,0.176184761,0.171647689,0.169188889,0.163276059,0.160290373,0.155811843,0.151567485,0.147293856,0.142786055,0.13757574,0.131340924,0.126247695,0.12103738,0.115212364,0.108421392,0.101688962,0.095132161,0.087989931,0.081257501,0.075754471,0.069753827,0.063460469,0.057225653,0.051693352,0.047273366,0.042970465,0.038931007,0.035359892,0.033164535,0.030237391,0.026227205,0.024324562,0.024236747,0.021865761,0.020548547,0.018470275,0.017387232,0.017855575,0.016977432,0.016567632,0.014928431,0.014021017,0.014225917,0.01366976,0.015074789,0.01366976,0.011123145,0.011357316,0.011913474,0.011767116,0.011181688,0.008635073,0.010127916,0.010157188,0.007669116,0.008547259,0.008752159,0.008459444,0.00775693,0.006673887,0.006644616,0.006878787,0.006761701,0.00591283,0.006381173,0.00591283,0.00509323,0.005854287,0.005561572,0.004419987,0.004946872,0.004215086,0.004654158,0.003893101,0.004390715,0.003746744,0.003834558,0.003014958,0.003922372,0.003219858,0.002810058,0.003044229,0.003512572,0.003746744,0.003980915,0.004068729,0.003805286,0.003424758,0.003102772,0.002751515,0.0024588,0.002224629,0.001990458,0.001902643,0.001756286,0.001668472,0.001580657,0.001492843,0.0014343,0.001375757,0.001463572,0.0016392,0.001756286,0.001697743,0.0018441,0.003132043,0.001522115,0.001522115,0.002049,0.0016392,0,0.001200129,0.001346486,0.000146357,8.78E-05,0.0004098,0.001785557,0.001551386\nSRI-1053288-001.txt,Cc1ccc(cc1)S(=O)(=O)N[C@@H](C(O)=O)c1ccccc1,0.891588318,0.912887927,0.933438722,0.954239121,0.972543473,0.986854148,0.996089525,1,0.997503952,0.988850986,0.971794658,0.9479158,0.91613279,0.877360845,0.832015975,0.781512605,0.726100341,0.666694401,0.604792412,0.541226392,0.478242782,0.41717281,0.358765288,0.304517847,0.25626092,0.21407771,0.178717031,0.149263666,0.125800815,0.107579666,0.093535236,0.083401281,0.076196023,0.070921042,0.067135369,0.064922207,0.064140111,0.063923787,0.063865546,0.063216574,0.061619103,0.059955071,0.059414261,0.059980032,0.060221316,0.059705466,0.057392462,0.053590149,0.050386887,0.047782677,0.044546135,0.041001747,0.037074632,0.033521924,0.031342042,0.029861053,0.027423247,0.023637574,0.019211249,0.015300774,0.011906149,0.010100674,0.008037274,0.007130377,0.005666029,0.005116898,0.004842333,0.00417672,0.004201681,0.003328064,0.003278143,0.00312838,0.002795574,0.002729012,0.002354605,0.00262085,0.002462767,0.001905317,0.002030119,0.001896996,0.001888676,0.001788834,0.00154755,0.001480988,0.001514269,0.001705633,0.001339546,0.001206423,0.001497629,0.001447708,0.001089941,0.001156502,0.001214743,0.001223063,0.0010317,0.001098261,0.000549131,0.00105666,0.000790415,0.000973459,0.000715534,0.000898577,0.000881937,0.000890257,0.000873617,0.000399368,0.000906897,0.001073301,0.000948498,0.000940178,0.000765455,0.000723854,0.000890257,0.001248024,0.000823696,0.000690573,0.00053249,0.000632332,0.00102338,0.000848656,0.000981779,0.001297945,0.000873617,0.000682253,0.001206423,0.001248024,0.001015059,0.001081621,0.000998419,0.00102338,0.001231384,0.001322905,0.001073301,0.000840336,0.000698893,0.000915218,0.000931858,0.000757135,0.000815376,0.000948498,0.000698893,0.000565771,0.000391048,0.00051585,0.000648972,0.000632332,0.000582411,0.000432648,0.000257925,8.32E-05,0,0,8.32E-06,1.66E-05,1.66E-05,8.32E-05,0.000166403,0.000224644,0.000274565,0.000324486,0.000366087,0.000416008,0.000440968,0.000424328,0.000366087,0.000349447,0.000474249,0.000940178,0.000341127,0.000565771,0.00052417,0.000307846,0.000291206,0.000490889,0.000590731,0.000424328,0.000665613,0.000748814,0.000440968,0.000316166,0.000648972\nSRI-0000131.txt,O=C(CCCCC(=O)C1=CC=CC=C1)C1=CC=CC=C1,0.253942636,0.274166366,0.298355533,0.326906681,0.357837092,0.392336396,0.43000805,0.47045551,0.512092601,0.556108954,0.600918395,0.645727836,0.690933821,0.735346718,0.778569984,0.819572605,0.857680457,0.893369392,0.924854964,0.951383739,0.972995372,0.988698504,0.997858664,1,0.995796637,0.984534795,0.966293783,0.940994294,0.908913906,0.869973313,0.824053549,0.772145976,0.715083334,0.653222513,0.589517763,0.524718553,0.461176387,0.401266561,0.345480789,0.29506422,0.250825802,0.212936049,0.181482201,0.155905131,0.135546576,0.119779998,0.107927306,0.099361961,0.093520872,0.089511815,0.087112725,0.085720857,0.085209316,0.085185523,0.085506723,0.085566205,0.086061885,0.086513944,0.086918419,0.087124622,0.086759802,0.08592706,0.084372608,0.082171791,0.079622015,0.077028619,0.074197296,0.071175633,0.067983456,0.064454217,0.06035792,0.055888873,0.050630703,0.045388395,0.039979538,0.034840332,0.030054049,0.025795169,0.02212714,0.019184785,0.016579493,0.01455712,0.013216802,0.011797176,0.010920814,0.010211001,0.009632047,0.009219642,0.008854821,0.008541552,0.008466209,0.008394831,0.008291729,0.008216386,0.007994321,0.00789122,0.0078476,0.007911047,0.007538296,0.007502607,0.007633467,0.007347955,0.007090202,0.006963308,0.007034686,0.006887965,0.006788829,0.006427974,0.006217806,0.005773677,0.005817296,0.005757815,0.005464373,0.005162999,0.005024209,0.004726801,0.004588011,0.004338188,0.004044746,0.00403285,0.003707684,0.003489585,0.003307175,0.003200108,0.002823391,0.002978043,0.002950285,0.00276391,0.002533914,0.002244437,0.002288057,0.00208582,0.002002546,0.001606002,0.001558417,0.001760654,0.001475143,0.001344283,0.00122532,0.001050841,0.00104291,0.000900154,0.001070668,0.00113015,0.00099929,0.000971532,0.000931878,0.000844638,0.000705848,0.000559127,0.000448094,0.000352924,0.00031327,0.000305339,0.0003212,0.000341028,0.000352924,0.000360855,0.00036482,0.00036482,0.000368786,0.000356889,0.000352924,0.000344993,0.000325166,0.000273615,0.000253788,0.000388613,0.000114998,0.000265684,0.000130859,3.17E-05,0.00026965,0.000162583,0.000126894,0.000249823,0.000233961,0.000174479,0.00013879,0,0.000114998\nSRI-0000643.txt,CC(C)COC(=O)OCC1OC(COC(C)=O)(OC2OC(COC(=O)OCC(C)C)C(OC(C)=O)C(OC(C)=O)C2OC(C)=O)C(OC(C)=O)C1OC(C)=O,0.922720247,1,1,0.922720247,1,1,0.922720247,0.922720247,1,0.922720247,0.845440495,0.845440495,0.845440495,0.845440495,0.768160742,0.690880989,0.613601236,0.636785162,0.598145286,0.536321484,0.497681607,0.443585781,0.404945904,0.366306028,0.343122102,0.29675425,0.273570325,0.258114374,0.227202473,0.188562597,0.173106646,0.157650696,0.14992272,0.14992272,0.142194745,0.118238022,0.127511592,0.119783617,0.122874807,0.135239567,0.125965997,0.102782071,0.099690881,0.111282844,0.098145286,0.141421947,0.138330757,0.115146832,0.125965997,0.142967543,0.130602782,0.120556414,0.129829985,0.104327666,0.108191654,0.108964451,0.108964451,0.102009274,0.07496136,0.088098918,0.105100464,0.097372488,0.091190108,0.086553323,0.105873261,0.112828439,0.100463679,0.121329212,0.097372488,0.104327666,0.105873261,0.121329212,0.115146832,0.093508501,0.099690881,0.085007728,0.074188563,0.096599691,0.106646059,0.111282844,0.091962906,0.094281298,0.052550232,0.061051005,0.077279753,0.083462133,0.067233385,0.082689335,0.073415765,0.064914992,0.07187017,0.057959815,0.054095827,0.050231839,0.049459042,0.066460587,0.032457496,0.048686244,0.072642968,0.034775889,0.049459042,0.046367852,0.064142195,0.054868624,0.053323029,0.063369397,0.041731066,0.096599691,0.061823802,0,0.048686244,0.067233385,0.077279753,0.079598145,0.05950541,0.015455951,0.036321484,0.044822257,0.046367852,0.039412674,0.07187017,0.051004637,0.024729521,0.020865533,0.043276662,0.05950541,0.033230294,0.048686244,0.054868624,0.095054096,0.057959815,0.066460587,0.079598145,0.048686244,0.054868624,0.069551777,0.05950541,0.029366306,0.058732612,0.031684699,0.0625966,0.043276662,0.075734158,0.050231839,0.045595054,0.0625966,0.0625966,0.05950541,0.055641422,0.051004637,0.047913447,0.046367852,0.045595054,0.043276662,0.041731066,0.040958269,0.041731066,0.041731066,0.040185471,0.038639876,0.037867079,0.037094281,0.037867079,0.037867079,0.040185471,0.044822257,0.047140649,0.05950541,0.080370943,0.070324575,0.052550232,0.020865533,0.050231839,0.044822257,0.073415765,0.101236476,0.0625966,0.060278207,0.052550232,0.097372488,0.070324575\nSRI-0000327.txt,CC(C(O)=O)C1(O)C(O)CC2C3CCC4CC(O)CCC4(C)C3CCC12C,1,0.954545455,0.863636364,0.863636364,0.727272727,0.727272727,0.681818182,0.595454545,0.559090909,0.472727273,0.45,0.404545455,0.372727273,0.340909091,0.313636364,0.259090909,0.222727273,0.190909091,0.172727273,0.154545455,0.140909091,0.122727273,0.109090909,0.095454545,0.081818182,0.077272727,0.063636364,0.059090909,0.059090909,0.05,0.047272727,0.044090909,0.049545455,0.043181818,0.045909091,0.049090909,0.03,0.030909091,0.032272727,0.028181818,0.032727273,0.017272727,0.014090909,0.016363636,0.038181818,0.042272727,0.052727273,0.046818182,0.051818182,0.039545455,0.032727273,0.014090909,0.029545455,0.025,0.029090909,0.036363636,0.024090909,0.020454545,0.024090909,0.017272727,0.048181818,0.070454545,0.092727273,0.132272727,0.148181818,0.165454545,0.179545455,0.195454545,0.220909091,0.22,0.23,0.231818182,0.155,0.095,0.088181818,0.036818182,0.024545455,0.027727273,0.042727273,0.035,0.045,0.026363636,0.026363636,0.024090909,0.022727273,0.025,0.025,0.025,0.016818182,0.027727273,0.042727273,0.023636364,0.027272727,0.030909091,0.026818182,0.022272727,0.041818182,0.038181818,0.024545455,0.030909091,0.035,0.02,0.025909091,0.023636364,0.021818182,0.039090909,0.028636364,0.013181818,0.018181818,0.025454545,0.036363636,0.010454545,0.046363636,0.028636364,0.027272727,0.033181818,0.020454545,0.030454545,0.035909091,0.036818182,0.026363636,0.035454545,0.030909091,0.049090909,0.021363636,0.046818182,0.032272727,0.037727273,0.034545455,0.032272727,0,0.033636364,0.041363636,0.020454545,0.039090909,0.029090909,0.03,0.046818182,0.032272727,0.048181818,0.04,0.031363636,0.024545455,0.030454545,0.026363636,0.026363636,0.026363636,0.023181818,0.020909091,0.023636364,0.025909091,0.028181818,0.029090909,0.029545455,0.029545455,0.029090909,0.028636364,0.029090909,0.029090909,0.03,0.03,0.03,0.030454545,0.029090909,0.025,0.021363636,0.027272727,0.048636364,0.062272727,0.031818182,0.029545455,0.048181818,0.019545455,0.029090909,0.025,0.025,0.054090909,0.037272727,0.030454545,0.042272727,0.04\nSRI-0000457.txt,CN1N=CN(\\N=C\\C2=CC=C(O2)[N+]([O-])=O)C1=O,0.424105801,0.444143873,0.45716862,0.470193367,0.483218114,0.498246669,0.513275223,0.530307584,0.545336139,0.564372307,0.574391344,0.587416091,0.600440838,0.610459874,0.613465585,0.610459874,0.60945797,0.606452259,0.602444645,0.593427512,0.581404669,0.566376115,0.554353271,0.539324717,0.517282837,0.497244765,0.475102695,0.449854724,0.429616271,0.406672678,0.380422803,0.360284541,0.341148182,0.319106302,0.309688408,0.295060615,0.285642721,0.278429015,0.273219116,0.270914738,0.276425208,0.280132251,0.275122733,0.280332632,0.287045386,0.296062519,0.299569181,0.306081555,0.312393548,0.317202685,0.319907825,0.322412584,0.327622483,0.328624386,0.327522292,0.330027051,0.327422102,0.323214107,0.320508967,0.319907825,0.314397355,0.309888789,0.304378319,0.29636309,0.292756237,0.285542531,0.276325018,0.270313596,0.263400461,0.258491133,0.248672478,0.24366296,0.240857629,0.235747921,0.233744114,0.231239355,0.227331931,0.224226029,0.224626791,0.227632502,0.230738403,0.235647731,0.241558962,0.245766957,0.24937381,0.257288849,0.266506362,0.275423304,0.283538724,0.29906823,0.312092977,0.325017533,0.339745516,0.35467388,0.366195772,0.382526801,0.400761447,0.415289049,0.434024647,0.454764052,0.470694319,0.494740006,0.513575794,0.533213105,0.557058411,0.574792105,0.59272618,0.613465585,0.635407274,0.655846108,0.673780182,0.700130247,0.716962228,0.735998397,0.758340848,0.77557359,0.796413185,0.817553351,0.835387236,0.852319407,0.874361286,0.885482417,0.905119727,0.91964733,0.933273219,0.948602344,0.960524997,0.970844605,0.975954313,0.984771065,0.989980964,0.999098287,0.997996193,0.998697525,1,0.995491434,0.994188959,0.995491434,0.987275824,0.978759643,0.96964232,0.95571586,0.948702535,0.939685402,0.921150185,0.906622583,0.896002405,0.888488127,0.873960525,0.846207795,0.812243262,0.780282537,0.753832281,0.733293257,0.717062419,0.702033864,0.685402264,0.668269712,0.647329927,0.624586715,0.597735698,0.567177638,0.530307584,0.486624587,0.438132452,0.393848312,0.359282637,0.333032762,0.296964232,0.267608456,0.241859533,0.213906422,0.184250075,0.161607053,0.136459273,0.111511873,0.086865044,0.062017834,0.035567578,0.019136359,0\nSRI-0000319.txt,CCOC(=O)C(\\C=N\\C1=CC(O)=NC(O)=N1)\\C=N\\C1=CC(O)=NC(O)=N1,0.871961979,0.857845329,0.842081735,0.82843564,0.815730654,0.803496224,0.793849846,0.787497353,0.785379856,0.785615133,0.787967908,0.791026516,0.797614286,0.806790109,0.819024539,0.831023692,0.845140343,0.861374491,0.879490859,0.898783615,0.915958873,0.933839964,0.951015222,0.966308261,0.978730913,0.989294873,0.996259088,1,0.997670753,0.991365315,0.980707244,0.964284874,0.944850952,0.919958591,0.892054678,0.860574548,0.825118227,0.788320824,0.74872362,0.705056114,0.657906501,0.610121638,0.55916053,0.50998753,0.462979084,0.417358775,0.375408795,0.337058561,0.304613792,0.276262852,0.252382185,0.231418959,0.213749618,0.198056608,0.18349293,0.170364445,0.159518152,0.14855422,0.140107757,0.132390655,0.126085218,0.121309084,0.117356422,0.114980119,0.113497871,0.113827259,0.113874315,0.116085923,0.118791615,0.121050279,0.124979413,0.129120297,0.134061125,0.138907842,0.144907418,0.149660024,0.156718349,0.163117898,0.170576195,0.178034492,0.18537515,0.19405689,0.203656213,0.212314425,0.222266664,0.230971931,0.240265393,0.2490883,0.259158177,0.267275251,0.276921629,0.285626897,0.294520387,0.30327271,0.312448533,0.321977272,0.330211985,0.338282004,0.346234383,0.352916265,0.360939228,0.368115192,0.373879491,0.380702539,0.386419782,0.390748888,0.395289744,0.402159848,0.406747759,0.411265087,0.414911889,0.420087994,0.425122932,0.429052067,0.432840035,0.434581088,0.437263252,0.438863139,0.441027692,0.440063054,0.439616027,0.439074889,0.43686328,0.433710562,0.429993177,0.423781851,0.420676188,0.41342964,0.407006564,0.399760017,0.391407665,0.383784674,0.375573489,0.364115474,0.353339764,0.342916971,0.3314119,0.320259746,0.307719455,0.29595558,0.282968261,0.270310331,0.257958262,0.243324001,0.230642543,0.218196363,0.209208762,0.20389149,0.195892055,0.179681434,0.160765122,0.143378114,0.130108463,0.120885585,0.114156648,0.108368821,0.10262805,0.096440251,0.089828953,0.082676517,0.07479472,0.065713008,0.055407854,0.044279227,0.033409406,0.025292332,0.020633838,0.017198786,0.013057902,0.010799238,0.010093405,0.006611298,0.004634967,0.003905607,0.003058608,0.00209397,0.001129332,0.001435193,0.000988166,9.41E-05,0\nSRI-0000494.txt,ClC1=CC=C(C=C1)C(=O)\\C=C\\C=C(C1=CC=C(Cl)C=C1)C1=CC=C(Cl)C=C1,0.475452196,0.464774596,0.454096995,0.439148355,0.424199714,0.407115553,0.392166912,0.372947231,0.357998591,0.33877891,0.323830269,0.313152668,0.300339548,0.293932987,0.287526427,0.281119867,0.278984347,0.276848827,0.278984347,0.281119867,0.283255387,0.287099323,0.291797467,0.296709164,0.301834412,0.308881628,0.315928844,0.323403165,0.332799453,0.34091443,0.34945651,0.359279903,0.369103295,0.378713136,0.390244944,0.401563201,0.412881457,0.423559058,0.432955346,0.440685929,0.448608709,0.453328208,0.456360647,0.458602943,0.460204583,0.460653042,0.45883785,0.455378307,0.448523288,0.439233775,0.427830098,0.414312256,0.39831721,0.383603477,0.367715207,0.352574369,0.33882162,0.326008499,0.31488244,0.30433297,0.295406496,0.286971192,0.278343691,0.271061567,0.2644201,0.256347834,0.24848912,0.241804942,0.234437397,0.22677088,0.219189784,0.210989386,0.204390629,0.196873599,0.189954513,0.182907297,0.176073633,0.169239968,0.163388643,0.158220685,0.153501185,0.149934867,0.148269161,0.146325838,0.146069575,0.14707327,0.149379631,0.15401371,0.15980097,0.168001367,0.176735644,0.187413244,0.199735196,0.212484251,0.227603733,0.243598778,0.261131399,0.279710423,0.299463984,0.321267645,0.342985884,0.366070857,0.389582933,0.413500758,0.439404617,0.46524441,0.491297756,0.516859931,0.54329767,0.569201529,0.59692058,0.623913554,0.648386615,0.674568091,0.699788584,0.725905994,0.750293634,0.774425011,0.799111624,0.820872574,0.842847075,0.862237598,0.881286437,0.899417003,0.916479809,0.931642001,0.945885921,0.957567215,0.967924488,0.97774788,0.985072714,0.991970444,0.996091998,0.998377005,1,0.99893224,0.995835736,0.992248062,0.987165524,0.980182373,0.969889167,0.957204177,0.945522882,0.932111816,0.915668311,0.899224806,0.886988276,0.879321759,0.86565443,0.835436821,0.799047558,0.76530634,0.737437803,0.715783629,0.697952036,0.681593952,0.664424371,0.645311466,0.623892199,0.599782177,0.571678732,0.539944904,0.502594657,0.458581588,0.410617806,0.367266748,0.332799453,0.302859461,0.272705918,0.245670233,0.21987315,0.193542187,0.167702394,0.142289705,0.119546416,0.098426122,0.076707882,0.056484507,0.036453328,0.018472249,0\nSRI-0000480.txt,CSC1=NN=C(S)S1,0.510342941,0.492221424,0.473074161,0.455978391,0.436489213,0.415632373,0.397852771,0.379389339,0.365370807,0.351694191,0.339043321,0.328443943,0.320579889,0.313399665,0.30485178,0.297671556,0.29288474,0.288097925,0.281259616,0.276130885,0.269976408,0.264847677,0.259718946,0.253564468,0.247068075,0.241255513,0.234417205,0.228707218,0.221287653,0.214859644,0.207884569,0.201183027,0.195233699,0.188566349,0.183300851,0.177043799,0.17283824,0.166307655,0.16131569,0.157725579,0.15553732,0.15064793,0.146203029,0.143057408,0.14155298,0.13933053,0.137039696,0.136355866,0.135603652,0.135637843,0.133894075,0.133825692,0.133073478,0.134885629,0.134988204,0.137757719,0.138578316,0.142407768,0.144630218,0.147912606,0.151639484,0.157281089,0.16552125,0.171128663,0.181386125,0.193045441,0.204020925,0.216261497,0.231681882,0.248469929,0.264881868,0.285054877,0.30751872,0.330256095,0.357335795,0.382534961,0.409785619,0.439498068,0.46992854,0.502854994,0.534447978,0.567237665,0.601121483,0.634936917,0.667931754,0.700618867,0.73419496,0.765993093,0.79676548,0.826614696,0.853660204,0.879885116,0.903614046,0.925428249,0.94519096,0.961534516,0.975484665,0.986220809,0.99490546,0.998940062,1,0.998187848,0.990426369,0.977672924,0.963483434,0.945977365,0.923752864,0.897288611,0.868978015,0.839231374,0.80808288,0.777071153,0.741409375,0.704277362,0.664991281,0.626833521,0.583888946,0.539747666,0.497794646,0.452217321,0.406947721,0.361302014,0.318015523,0.280028721,0.243238623,0.207713612,0.178240503,0.152836188,0.128560194,0.108900058,0.092282969,0.079392758,0.066468356,0.056279277,0.047184327,0.039422847,0.033678668,0.029404725,0.02550689,0.021950969,0.017847984,0.013744999,0.012958594,0.01176189,0.010325845,0.009471057,0.009163333,0.00865046,0.007590522,0.00598352,0.004308134,0.003043047,0.002359216,0.002154067,0.002154067,0.002325025,0.002461791,0.00266694,0.002803706,0.002940473,0.003043047,0.003145622,0.003214005,0.003248196,0.003248196,0.003487537,0.00376107,0.002564366,0,0.002119876,0.001948918,0.002290833,0.001572811,0.001914726,0.000512873,0.000512873,0.001675386,0.001641194,0.002188259,0.002154067,0.000683831\nSRI-0000669.txt,CC(=O)NCC(NC(C)=O)C(O)CO,1,0.953416149,0.906832298,0.860248447,0.829192547,0.755434783,0.693322981,0.611801242,0.565217391,0.491459627,0.429347826,0.367236025,0.277950311,0.227484472,0.177018634,0.169254658,0.142080745,0.130434783,0.126552795,0.111024845,0.089673913,0.089673913,0.06560559,0.060559006,0.058618012,0.0625,0.040372671,0.041925466,0.034937888,0.029114907,0.024456522,0.031055901,0.02484472,0.027173913,0.023291925,0.027173913,0.029503106,0.026397516,0.033385093,0.027173913,0.017857143,0.028726708,0.022903727,0.036102484,0.036878882,0.027562112,0.036878882,0.031055901,0.033385093,0.039208075,0.023680124,0.030279503,0.022127329,0.020574534,0.027950311,0.02484472,0.036490683,0.020962733,0.021350932,0.008928571,0.031832298,0.029503106,0.01863354,0.017468944,0.017857143,0.019798137,0.020186335,0.026397516,0.026397516,0.027562112,0.028726708,0.031055901,0.022515528,0.044254658,0.024456522,0.029114907,0.039596273,0.04386646,0.034161491,0.034549689,0.026785714,0.024456522,0.033773292,0.039596273,0.033385093,0.031444099,0.027562112,0.033773292,0.04386646,0.029114907,0.022903727,0.027562112,0.008152174,0.004270186,0.019409938,0.029114907,0.029503106,0.01863354,0.022515528,0.026785714,0.019798137,0.02484472,0.013586957,0.027562112,0.030667702,0.02484472,0.017080745,0.017080745,0.025621118,0.016692547,0.023680124,0.032996894,0.022127329,0.022127329,0.027950311,0.031832298,0.026009317,0.014751553,0.025621118,0.012034161,0.014751553,0.017857143,0.029503106,0.039596273,0.026785714,0.020574534,0.031444099,0.022515528,0,0.023680124,0.035326087,0.038043478,0.046583851,0.022127329,0.01863354,0.02173913,0.034937888,0.025232919,0.019409938,0.022515528,0.029503106,0.01863354,0.013975155,0.024068323,0.022515528,0.021350932,0.022903727,0.023680124,0.024068323,0.022515528,0.01863354,0.015139752,0.013586957,0.013586957,0.013198758,0.012810559,0.012034161,0.011645963,0.012034161,0.012810559,0.013586957,0.015139752,0.015916149,0.014751553,0.015916149,0.020186335,0.020574534,0.030667702,0.021350932,0.015916149,0.020574534,0.027950311,0.010481366,0.012034161,0.020574534,0.03765528,0.020574534,0.012810559,0.032996894,0.009704969,0.00621118\nSRI-0000090.txt,NC(=O)C(F)(F)C(F)(F)C(F)(F)C(N)=O,1,0.863102233,0.748922836,0.638268703,0.552878966,0.477477477,0.410105758,0.340188014,0.288288288,0.245201723,0.201331767,0.169016843,0.14649432,0.111633373,0.094202899,0.078339209,0.051116334,0.037406972,0.024089307,0.014101058,0.005483745,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0.001175088,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0.00195848,0,0.005483745,0.004112808,0,0,0,0.002154328,0,0.007050529,0,0,0\nSRI-0000287.txt,CS(=O)(=O)C1=NN=C(S1)C1=CC=NC=C1,0.325612381,0.321564005,0.318386799,0.316695706,0.316234498,0.316029517,0.317208158,0.319872912,0.32356257,0.328072153,0.333965358,0.34129343,0.349287691,0.358409347,0.368658399,0.37967613,0.391770011,0.404735062,0.418622527,0.433688634,0.449523419,0.466603464,0.484462437,0.503197704,0.522665778,0.543594343,0.565112227,0.587578149,0.610033822,0.633898739,0.657271702,0.68194117,0.706369786,0.730480681,0.754888798,0.778984319,0.803387312,0.826196577,0.849000717,0.870790202,0.890847597,0.909828841,0.92778518,0.943604592,0.957861023,0.970344368,0.980895767,0.988705545,0.994690991,0.998672748,1,0.998534386,0.994880599,0.988787537,0.980567797,0.969314338,0.956595265,0.941426668,0.924689966,0.905560111,0.884939018,0.86237573,0.838362201,0.812324485,0.78470329,0.755898329,0.725228041,0.694342523,0.663211028,0.631075126,0.598334529,0.565168597,0.532730347,0.499707902,0.467305524,0.435343856,0.403889515,0.372650405,0.342497694,0.312816439,0.284170339,0.256456903,0.229881111,0.204391719,0.180578047,0.1583786,0.137834375,0.119611561,0.10302347,0.088521062,0.075914728,0.064738137,0.055288511,0.047150764,0.040084042,0.03416009,0.029107308,0.024889823,0.021384647,0.018284309,0.015593933,0.013108537,0.01140207,0.009890335,0.008522087,0.007543302,0.006467152,0.005621605,0.004965666,0.004263606,0.003915138,0.003428308,0.003059342,0.002736497,0.002418776,0.002075433,0.002172799,0.001778211,0.001783335,0.001803833,0.001378497,0.001204264,0.001065901,0.001255509,0.001050528,0.000743056,0.000737932,0.00086092,0.000717434,0.000584196,0.000696936,0.00064569,0.000609819,0.000625192,0.000794302,0.000573947,0.00059957,0.000425336,0.000409962,0.000532951,0.000517577,0.0005432,0.000312596,0.000307472,0.000476581,0.000466332,0.00043046,0.000420211,0.000333094,0.000286973,0.000245977,0.00021523,0.000199857,0.000199857,0.000204981,0.000199857,0.000194732,0.000189607,0.000174234,0.000163985,0.000153736,0.000153736,0.000153736,0.000163985,0.00015886,0.000199857,0.00021523,0.000240853,0.000235728,0.000174234,0.000204981,0,6.15E-05,0.00015886,0.000220355,0.000317721,0.0002716,0.000317721,0.000286973,0.000128113,0.000368966\nSRI-0000091.txt,O\\C(=C\\C(=O)C1=CC=C(Br)C=C1)C1=CC=C(Br)C=C1,0.276077319,0.290987164,0.308547649,0.329752762,0.352945854,0.379120916,0.408277946,0.439853685,0.473417403,0.509532361,0.54720457,0.586400896,0.62745267,0.668703241,0.710649605,0.751966443,0.792753153,0.83185008,0.86909156,0.902820943,0.933170761,0.9583187,0.978297892,0.992081216,0.999436739,1,0.993969796,0.980418403,0.959975349,0.932176771,0.89667146,0.853651587,0.804193974,0.748967907,0.69027613,0.628986727,0.567322921,0.507083833,0.448451695,0.393470813,0.343324034,0.298054431,0.258400869,0.224290457,0.195037341,0.170184286,0.149194537,0.13159098,0.117297408,0.105926166,0.097248637,0.090433181,0.084962924,0.080456838,0.076610098,0.073051615,0.06963229,0.065838563,0.061186691,0.05649506,0.052128132,0.048625975,0.04625034,0.044375012,0.042271068,0.039077047,0.033808902,0.027666046,0.021649095,0.016152332,0.01184173,0.008753736,0.00641786,0.005046154,0.004009092,0.003177454,0.002663892,0.002402142,0.002094005,0.001891894,0.001709662,0.001815688,0.001775928,0.001799121,0.001795808,0.002001233,0.002074125,0.002021112,0.002100632,0.002113885,0.002077438,0.00225967,0.002418708,0.002448528,0.002634073,0.002687085,0.002647326,0.002706965,0.002786484,0.00291239,0.002958776,0.00290245,0.003157574,0.003266913,0.003429264,0.003356372,0.003323239,0.003366312,0.003512097,0.003681075,0.003548543,0.003671135,0.003763908,0.003813607,0.003671135,0.003664509,0.003830174,0.003823547,0.0038368,0.003893126,0.003684388,0.003644629,0.003704268,0.003614809,0.003664509,0.003730775,0.003571736,0.003429264,0.00355517,0.003522037,0.003382878,0.003260286,0.003329865,0.003187394,0.0031642,0.00293227,0.00290245,0.002866004,0.002819617,0.002504854,0.002494914,0.002620819,0.002491601,0.002375635,0.002375635,0.00226961,0.002170211,0.002120511,0.002047619,0.001925027,0.001789181,0.001666589,0.00156719,0.001504238,0.001464478,0.001428032,0.001384959,0.001331946,0.001272307,0.001199414,0.001123208,0.001033749,0.00092441,0.000791878,0.000646093,0.000533441,0.000563261,0.000599707,0.000390969,0.000278317,0.000238558,0.000271691,0.000337956,0.000119279,0.000159038,0.000337956,0.000182231,2.65E-05,0.000145785,4.64E-05,0\nSRI-0000697.txt,CCOC(=O)N(C)[C@@H]1CC[C@H]1NC,1,0.947589099,0.921383648,0.900419287,0.874213836,0.795597484,0.732704403,0.680293501,0.63312369,0.580712788,0.528301887,0.507337526,0.397274633,0.355345912,0.304507338,0.262054507,0.211740042,0.155660377,0.1278826,0.078616352,0.061320755,0.026205451,0.014150943,0.002096436,0.01572327,0.017819706,0.016247379,0.020440252,0.019392034,0.02672956,0.034067086,0.041404612,0.041928721,0.039308176,0.051362683,0.04245283,0.057651992,0.071802935,0.049790356,0.041928721,0.062893082,0.072851153,0.061320755,0.099580713,0.081761006,0.080712788,0.099580713,0.085429769,0.084381551,0.093291405,0.064989518,0.057651992,0.068134172,0.068134172,0.059224319,0.060796646,0.060796646,0.030922432,0.036687631,0.042976939,0.064465409,0.058176101,0.042976939,0.043501048,0.055555556,0.04769392,0.03721174,0.038784067,0.039832285,0.049790356,0.054507338,0.05870021,0.044549266,0.060272537,0.062893082,0.06918239,0.054507338,0.063417191,0.069706499,0.080188679,0.076519916,0.083333333,0.051362683,0.059748428,0.0639413,0.066561845,0.055555556,0.04245283,0.046121593,0.036163522,0.049266247,0.044549266,0.036687631,0.034067086,0.039308176,0.038259958,0.040356394,0.034591195,0.046121593,0.030398323,0.024633124,0.044549266,0.043501048,0.061320755,0.050838574,0.044025157,0.040880503,0.027777778,0.038259958,0.055555556,0.009433962,0.029874214,0.044025157,0.045597484,0.020440252,0.053459119,0.031446541,0.039832285,0.046121593,0.020964361,0.035115304,0.042976939,0.040880503,0.025681342,0.038784067,0.04769392,0.052410901,0.048218029,0.036687631,0.055555556,0.067085954,0.056079665,0.060796646,0.044025157,0.041928721,0.046645702,0.045597484,0.046645702,0.047169811,0.030398323,0.029874214,0.042976939,0.040356394,0.033018868,0.011530398,0.012578616,0.011530398,0.009433962,0.006289308,0,0.000524109,0.002096436,0.004192872,0.006289308,0.009958071,0.012578616,0.014675052,0.016771488,0.017819706,0.018867925,0.018867925,0.019392034,0.018343816,0.018867925,0.02148847,0.023060797,0.012578616,0.019392034,0.03721174,0.031446541,0.017819706,0.028825996,0.020964361,0.020440252,0.029874214,0.033542977,0.033018868,0.007337526,0.028301887,0.044549266,0.030398323\nSRI-0000654.txt,CC(=O)NCC(C1COC(C)(C)O1)N(CC1=CC=CC=C1)C(C)=O,0.937677725,0.913981043,0.89028436,0.89028436,0.866587678,0.819194313,0.819194313,0.771800948,0.7007109,0.667535545,0.641469194,0.613033175,0.586966825,0.537203791,0.489810427,0.451895735,0.409241706,0.385545024,0.354739336,0.326303318,0.307345972,0.314454976,0.297867299,0.293127962,0.290758294,0.290758294,0.300236967,0.312085308,0.319194313,0.335781991,0.35,0.35971564,0.380805687,0.399052133,0.420853081,0.434834123,0.459241706,0.483649289,0.529383886,0.550947867,0.566350711,0.588388626,0.626777251,0.659241706,0.691943128,0.716824645,0.745023697,0.76943128,0.799526066,0.829383886,0.85521327,0.886018957,0.900236967,0.924407583,0.939810427,0.955924171,0.969905213,0.980331754,0.982227488,0.986966825,0.994075829,1,0.999052133,0.99478673,0.982701422,0.979383886,0.954265403,0.946682464,0.929146919,0.897393365,0.866824645,0.840521327,0.812796209,0.777488152,0.763033175,0.744549763,0.718246445,0.691469194,0.667535545,0.635781991,0.587677725,0.544549763,0.507819905,0.464454976,0.432227488,0.40971564,0.39478673,0.361374408,0.322274882,0.294075829,0.258530806,0.228436019,0.1992891,0.160900474,0.129146919,0.131753555,0.117298578,0.109241706,0.09028436,0.082938389,0.08436019,0.077962085,0.075829384,0.062796209,0.064454976,0.068720379,0.072985782,0.086492891,0.068720379,0.050947867,0.057109005,0.061137441,0.058056872,0.053080569,0.04028436,0.0492891,0.04478673,0.045734597,0.0492891,0.042890995,0.040047393,0.048341232,0.0507109,0.039336493,0.041943128,0.039336493,0.031990521,0.038625592,0.036018957,0.026066351,0.040521327,0.038151659,0.031753555,0.021800948,0.029146919,0.02464455,0.012322275,0.026540284,0.025118483,0.01563981,0.018246445,0.02014218,0.022037915,0.023222749,0.016113744,0.019905213,0.020616114,0.020853081,0.02014218,0.018957346,0.017535545,0.016824645,0.015402844,0.014218009,0.013033175,0.012796209,0.012085308,0.011137441,0.01042654,0.00971564,0.009241706,0.008767773,0.008530806,0.009952607,0.012559242,0.013507109,0.013270142,0.010663507,0.017298578,0.017298578,0.018720379,0.006398104,0,0.002843602,0.01042654,0.014691943,0.016350711,0.015402844,0.007345972,0.018009479,0.018957346\nSRI-0000481.txt,N#CN1CCCCC1,1,0.965034965,0.906759907,0.848484848,0.784382284,0.731934732,0.691142191,0.644522145,0.60955711,0.551282051,0.504662005,0.481351981,0.428904429,0.440559441,0.405594406,0.376456876,0.341491841,0.300699301,0.277389277,0.25990676,0.25990676,0.230769231,0.224941725,0.213286713,0.207459207,0.206293706,0.201631702,0.234265734,0.227272727,0.216200466,0.215034965,0.227272727,0.243006993,0.255244755,0.262237762,0.249417249,0.252913753,0.268648019,0.312937063,0.294289044,0.30011655,0.315268065,0.298951049,0.305944056,0.272144522,0.307692308,0.290792541,0.279137529,0.273892774,0.255827506,0.211538462,0.210955711,0.2004662,0.192890443,0.15034965,0.116550117,0.096736597,0.079254079,0.04020979,0.046037296,0.059440559,0.04020979,0.044289044,0.025058275,0.033799534,0.051282051,0.076340326,0.058857809,0.042540793,0.053613054,0.041375291,0.045454545,0.070512821,0.046620047,0.077505828,0.082167832,0.065268065,0.060606061,0.0495338,0.076923077,0.077505828,0.065268065,0.07983683,0.092074592,0.073426573,0.071095571,0.057692308,0.054778555,0.032634033,0.061188811,0.0495338,0.044289044,0.037878788,0.044289044,0.030885781,0.036713287,0.036130536,0.018648019,0.011072261,0.033799534,0.034382284,0.058275058,0.045454545,0.058857809,0.044871795,0.036130536,0.030885781,0.053030303,0.043706294,0,0.028554779,0.078088578,0.027389277,0.021561772,0.061188811,0.064102564,0.046037296,0.053030303,0.054195804,0.046037296,0.087995338,0.051282051,0.096736597,0.107226107,0.12004662,0.09032634,0.134032634,0.116550117,0.132284382,0.177738928,0.15967366,0.173659674,0.217948718,0.202797203,0.190559441,0.177156177,0.222027972,0.233100233,0.241258741,0.223776224,0.234265734,0.243006993,0.245920746,0.293123543,0.282634033,0.276806527,0.279137529,0.284382284,0.287296037,0.288461538,0.28962704,0.292540793,0.294289044,0.294871795,0.296620047,0.297785548,0.2995338,0.302447552,0.303613054,0.305361305,0.306526807,0.307692308,0.308275058,0.307692308,0.30011655,0.286713287,0.282051282,0.288461538,0.302447552,0.287296037,0.262820513,0.284382284,0.254662005,0.261072261,0.283216783,0.266317016,0.261072261,0.252331002,0.215034965,0.215617716,0.226107226\nSRI-0000318.txt,COC1=CC(CCC2=NC3=C(N=C2)N=C(N)N=C3N)=CC(OC)=C1OC,1,0.969146934,0.942117911,0.917913464,0.896099043,0.875805547,0.856511518,0.839042599,0.822573146,0.808450264,0.796195947,0.786114382,0.779378854,0.774772622,0.772990966,0.774077341,0.777293013,0.782073065,0.787678763,0.794414291,0.80045454,0.805321502,0.807711528,0.807324778,0.803570265,0.794714131,0.781477731,0.762487887,0.737775016,0.708273402,0.673691895,0.634621485,0.591809597,0.547033543,0.502096705,0.458111532,0.417181247,0.380805048,0.348956862,0.321588889,0.299079188,0.280324001,0.264628047,0.251943526,0.2412927,0.232692951,0.225679311,0.220164868,0.216045332,0.213120809,0.211330462,0.210687328,0.210774238,0.211686794,0.212942644,0.214819901,0.216584175,0.21836583,0.219964975,0.220925331,0.221377263,0.220925331,0.219847647,0.218235465,0.21632779,0.214202839,0.21165203,0.209127293,0.206385281,0.203308665,0.200531889,0.197403128,0.19413531,0.191119532,0.188312337,0.185626817,0.182889151,0.180720745,0.179156364,0.177939624,0.177048796,0.176914085,0.17751811,0.178913016,0.180742473,0.183184645,0.186448117,0.189824572,0.194126619,0.19862856,0.203725834,0.208983891,0.21468519,0.220768893,0.227200236,0.234144349,0.241257936,0.248619217,0.256445466,0.264236952,0.272389114,0.280558658,0.288541345,0.296398013,0.303902696,0.310877227,0.317625791,0.323991952,0.330179947,0.336272341,0.342356044,0.348691787,0.355466424,0.362032478,0.369272085,0.376294416,0.382856125,0.388705171,0.393511296,0.396800841,0.39847386,0.397978472,0.395562373,0.391538438,0.385941431,0.379449251,0.372748487,0.366582219,0.360828774,0.356544109,0.35339362,0.350382187,0.346540763,0.341669455,0.335477114,0.327364062,0.316987003,0.303741912,0.287637481,0.268969203,0.247689279,0.224836283,0.201309734,0.177622402,0.154395693,0.134323818,0.121248202,0.114047705,0.105169844,0.08977373,0.072530777,0.057234609,0.046957497,0.040865103,0.037149698,0.034299049,0.031604837,0.028875862,0.026112123,0.023265819,0.020302186,0.016886622,0.013262473,0.009816489,0.006957149,0.005266749,0.00450194,0.004097809,0.003654567,0.002950596,0.002594265,0.002368299,0.001938094,0.001677364,0.001373179,0.001029884,0.000777845,0.000586643,0.000308531,0.000265076,0\nSRI-1052863-001.txt,Cc1[nH]nc(c1CC(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(O)=O)-c1ccc(Cl)cc1,0.998456003,1,0.994738221,0.979156043,0.953436307,0.916807015,0.868597746,0.811815232,0.749466204,0.685634126,0.625722987,0.573186464,0.529141924,0.494036312,0.46772742,0.449483878,0.437782008,0.431260653,0.428558659,0.429046237,0.431545074,0.435323803,0.440260529,0.445725465,0.451556085,0.457305441,0.462729746,0.468123577,0.472962788,0.477109232,0.480477583,0.483025177,0.484798742,0.485548393,0.485266004,0.48406128,0.481670117,0.478472418,0.474189859,0.468844786,0.462284831,0.455294182,0.447484809,0.439102532,0.430127034,0.420659896,0.410571096,0.400010971,0.389324887,0.378378763,0.36739607,0.356466198,0.345684631,0.334929474,0.324253549,0.313400876,0.302714793,0.292254215,0.282661119,0.274087874,0.266333353,0.258458969,0.250521607,0.242001182,0.232007866,0.220616827,0.208173431,0.195988046,0.186141003,0.179262091,0.173951555,0.167310337,0.156727864,0.141682022,0.123816354,0.105706897,0.089066268,0.074613645,0.062558281,0.052246007,0.043449289,0.036231104,0.030083559,0.024872569,0.020701747,0.017187122,0.01417836,0.011705934,0.009595127,0.007841878,0.006480723,0.005320694,0.004416643,0.003693403,0.003136751,0.002671521,0.0023485,0.002041733,0.001860922,0.001730902,0.001645576,0.001527744,0.001446481,0.00147086,0.001320524,0.001324587,0.00132865,0.001288018,0.001279892,0.001332713,0.001263639,0.001310366,0.001330681,0.001403818,0.001446481,0.001312397,0.00136725,0.001448513,0.001430229,0.001403818,0.001409913,0.001466797,0.001472892,0.001606976,0.001566344,0.00161307,0.001655733,0.001621197,0.001667923,0.001751217,0.001820291,0.001862954,0.001860922,0.001828417,0.001846701,0.001869049,0.001860922,0.001875143,0.001897491,0.001940154,0.001997038,0.001966564,0.001946249,0.001968596,0.001952343,0.00199907,0.001988912,0.001964533,0.001932028,0.001887333,0.001838575,0.001787786,0.00174106,0.001706523,0.001676049,0.001649639,0.001619165,0.00158666,0.00154806,0.001501334,0.001450544,0.00139366,0.001322555,0.001239261,0.001129556,0.001030008,0.000985314,0.001003598,0.000897956,0.000859356,0.000680578,0.000605409,0.000518052,0.00047742,0.000371778,0.000341305,0.000363652,0.000229568,0.000109705,2.84E-05,0\nSRI-1052774-001.txt,Cc1[nH]c(=O)[nH]c(=O)c1S(=O)(=O)N1CCCC(C1)C(=O)N1CCN(Cc2ccccc2)CC1,0.990141033,0.898235412,0.818361072,0.747844395,0.684613328,0.627130539,0.573390816,0.52359468,0.477274246,0.434563198,0.396263619,0.362509191,0.333567275,0.309371031,0.28992046,0.275416082,0.265456854,0.259775416,0.258438607,0.260564133,0.266105207,0.274894726,0.286745538,0.301310073,0.318113762,0.337771539,0.359374373,0.383343359,0.409290823,0.436889245,0.466686719,0.497613796,0.529623688,0.56247577,0.596263619,0.631241227,0.667074393,0.703001136,0.737323708,0.770870931,0.803702961,0.835111289,0.86650625,0.895929416,0.920259341,0.941327451,0.959053539,0.974466947,0.987126529,0.996424036,1,0.99677829,0.98879754,0.976893256,0.960771339,0.940171112,0.915587193,0.88635118,0.853205,0.816883898,0.777314351,0.735131341,0.690488604,0.644422164,0.596170042,0.546093176,0.495160751,0.443773812,0.393723682,0.344609318,0.297914578,0.254261079,0.214584587,0.179286144,0.149014103,0.122745806,0.100454515,0.081719136,0.066332464,0.053612726,0.043499766,0.035151394,0.028547557,0.02310006,0.018675222,0.015246307,0.01242564,0.010153065,0.008368425,0.007031616,0.005942116,0.004892721,0.004177528,0.003649489,0.003001136,0.002519885,0.002399572,0.002326048,0.00181806,0.001617539,0.001624223,0.001296705,0.001136288,0.001196444,0.000975871,0.001169708,0.001243232,0.001096183,0.000955818,0.001109552,0.000915714,0.001082815,0.001196444,0.001203128,0.00090903,0.00087561,0.000815454,0.001015975,0.000802085,0.000902346,0.000895662,0.00094245,0.000802085,0.000741929,0.00094245,0.000862242,0.000688457,0.000888978,0.000915714,0.000715193,0.000481251,0.000755297,0.000862242,0.000782033,0.00059488,0.000888978,0.000681773,0.000534724,0.000621616,0.000614932,0.00056146,0.000481251,0.000434463,0.000421095,0.000354254,0.000407727,0.000514671,0.000574828,0.000507987,0.000387675,0.000220573,8.69E-05,6.68E-05,4.01E-05,2.67E-05,2.67E-05,2.67E-05,3.34E-05,4.01E-05,6.02E-05,7.35E-05,9.36E-05,0.000147049,0.000207205,0.000260678,0.000207205,0.000100261,4.01E-05,0.000240626,0.000407727,0,0.000213889,0.000387675,0.000401043,0.000427779,8.69E-05,8.02E-05,0.000354254,0.000360938,0.00034757,0.000427779\nSRI-1052934-001.txt,CCOC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)c1ccc(cc1Cl)[N+]([O-])=O,1,0.985511764,0.963998929,0.931729676,0.888704005,0.833385286,0.767968705,0.694210413,0.617598377,0.541644898,0.471398905,0.409889758,0.357446734,0.314574726,0.280395661,0.254141221,0.23456015,0.220071914,0.209930149,0.202949454,0.198866405,0.19669317,0.196473651,0.197373678,0.199568865,0.202620176,0.206373946,0.210786272,0.21568154,0.221103652,0.226734308,0.232933517,0.239455418,0.246297817,0.25325217,0.260158229,0.267501131,0.274582805,0.281431789,0.288397118,0.29492341,0.301278477,0.307515004,0.31320493,0.318859732,0.323722072,0.32827489,0.332039636,0.335183144,0.337751514,0.339360586,0.340205733,0.340254027,0.339351805,0.337384917,0.334614591,0.330740085,0.32645947,0.322393983,0.318352644,0.314317889,0.309398475,0.303857822,0.297230552,0.288801033,0.278433163,0.266372804,0.254940269,0.24546145,0.23895711,0.233763297,0.226672842,0.215536657,0.200027659,0.182114931,0.164364647,0.148179531,0.134240092,0.122324616,0.111939185,0.10309258,0.095380887,0.088668004,0.082978079,0.077801827,0.073393891,0.069440359,0.065980744,0.06265723,0.059849586,0.057224142,0.054811631,0.052504489,0.050379548,0.048406075,0.046443577,0.044524983,0.042617366,0.040652673,0.038637491,0.036699141,0.034699325,0.032916833,0.031428496,0.029828205,0.028293769,0.026873483,0.025330266,0.024019739,0.022663113,0.021541373,0.020351581,0.019297891,0.018362742,0.017500033,0.016637324,0.01593706,0.015258747,0.014613362,0.013989928,0.013445522,0.012749648,0.012139386,0.011715714,0.011096672,0.010512752,0.010100057,0.009704923,0.009419549,0.008980511,0.008624891,0.008280246,0.007999262,0.007720474,0.007489979,0.007279241,0.007059722,0.006862155,0.006600928,0.006324335,0.006291407,0.006010423,0.005753586,0.005621875,0.005415527,0.005261864,0.005125762,0.00504454,0.00492161,0.00468453,0.00439257,0.004122562,0.003909629,0.00375377,0.003637425,0.003536447,0.003433273,0.003325709,0.003200583,0.003064481,0.002908623,0.002733008,0.002531051,0.00228958,0.002028353,0.001800054,0.001609072,0.001503703,0.001339064,0.001202963,0.001064666,0.001071251,0.00087588,0.000730997,0.000654166,0.000504893,0.00029635,0.000223909,7.68E-05,0,1.98E-05\nSRI-0000183.txt,[O-][N+](=O)C1=NN=C(S1)N1CCCC1,0.624905381,0.625410015,0.625241804,0.623727901,0.623223267,0.620868307,0.618513348,0.615653754,0.612289525,0.6104392,0.608925297,0.605897492,0.604551801,0.603878955,0.601692207,0.600514727,0.599505458,0.597655133,0.594459116,0.590422042,0.585039277,0.578310821,0.569563828,0.558630086,0.545677808,0.531043415,0.515736177,0.499301923,0.482228465,0.46579421,0.449410419,0.432959343,0.41684469,0.400343151,0.384413531,0.368467089,0.351679591,0.335480832,0.320510017,0.303907551,0.287607866,0.273175327,0.257279349,0.242476745,0.227926458,0.213813521,0.199380982,0.186630557,0.173896954,0.16116335,0.14937173,0.138589379,0.128059345,0.118185335,0.10822722,0.099867113,0.091406079,0.083836566,0.076115662,0.068663897,0.062204579,0.056266716,0.050480244,0.044407812,0.038789551,0.032515265,0.027250248,0.02255715,0.018116369,0.013591482,0.010210432,0.007569513,0.005113627,0.002691383,0.001547545,0.002153106,0.000706488,0.000185033,0,0.000689667,0.000168211,0.00074013,0.001732578,0.003027805,0.002741846,0.003868862,0.005836936,0.007468587,0.008040505,0.009722619,0.011101953,0.013389628,0.014903531,0.016686572,0.019377954,0.021127353,0.02255715,0.025298996,0.027065216,0.028528655,0.032279769,0.0350889,0.03818399,0.041211795,0.044777877,0.048882235,0.053306195,0.057561944,0.062557823,0.067873303,0.072852361,0.079278037,0.084240273,0.09127151,0.09879056,0.107032919,0.114787465,0.122306515,0.132634695,0.141802217,0.151743511,0.163282814,0.173005433,0.184376524,0.196874632,0.209103601,0.22264462,0.235361402,0.249945331,0.263149927,0.27573214,0.289104947,0.304109405,0.319282074,0.335178052,0.351931908,0.367827886,0.384447173,0.402008444,0.419973423,0.437349661,0.456239802,0.474154317,0.492657572,0.511244933,0.529092163,0.542111726,0.550236337,0.561540144,0.584719676,0.612541843,0.63859779,0.659153224,0.673955828,0.684755,0.694544904,0.704738515,0.716143249,0.72854043,0.742905684,0.75891941,0.778196437,0.801291864,0.828087941,0.856061498,0.879913876,0.89752561,0.911419872,0.924052549,0.935289071,0.946828374,0.956450066,0.96519706,0.973052532,0.979915558,0.986425339,0.990933405,0.994583593,0.997022658,0.999545829,1\nSRI-1053339-001.txt,OC(=O)C1CCCCC1CN1C(=O)c2ccccc2C1=O,1,1,0.988643975,0.963614368,0.922361868,0.863727696,0.787016587,0.700988901,0.616351749,0.540405433,0.47859621,0.433496567,0.40350739,0.384109444,0.369694245,0.35463013,0.337109405,0.318453078,0.301465391,0.288116267,0.279100974,0.27400235,0.269923451,0.261232615,0.241255281,0.208091052,0.167533819,0.126814357,0.092166892,0.065730528,0.04702785,0.034608066,0.026672754,0.021750265,0.018816239,0.017036356,0.016049077,0.01546737,0.015110466,0.01504094,0.015043257,0.015156817,0.015309776,0.015599471,0.0158938,0.016373534,0.0168046,0.017205537,0.017861406,0.018547402,0.019249622,0.020056131,0.021017917,0.021910176,0.022953076,0.024084044,0.025173295,0.02638306,0.027745783,0.029062155,0.030550026,0.032058755,0.033606882,0.03515501,0.036881589,0.0385595,0.040144708,0.041866652,0.043373064,0.045111231,0.046677899,0.048133324,0.049611925,0.050919027,0.052019866,0.053053496,0.053755716,0.054082491,0.054362915,0.054247038,0.053894769,0.053357096,0.05268964,0.05167455,0.050355861,0.048638552,0.046511035,0.043987216,0.041104176,0.038112211,0.034821282,0.03154194,0.028297361,0.025094498,0.022188283,0.019400263,0.016904255,0.01475588,0.012848531,0.011017662,0.009650304,0.008350155,0.007228458,0.006331563,0.005504196,0.004799659,0.004252716,0.003738218,0.00330947,0.002855229,0.002535406,0.00217155,0.002044085,0.001779883,0.001541175,0.00146006,0.001216717,0.000998867,0.000996549,0.000845908,0.000822732,0.000609517,0.000604882,0.000618788,0.000509862,0.000498275,0.000433383,0.000491322,0.000315188,0.000280424,0.000224803,0.000264201,0.000287377,0.000176134,0.000166864,0.000213215,0.000238708,0.000206263,0.000164546,0.000108925,0.000148324,0.000164546,0.000152959,0.00019004,0.000146006,9.73E-05,7.65E-05,8.34E-05,0.000106608,0.000118195,0.000115878,0.000106608,9.73E-05,8.34E-05,6.95E-05,5.79E-05,4.4E-05,3.48E-05,2.78E-05,2.09E-05,1.39E-05,6.95E-06,0,2.32E-06,2.32E-06,4.64E-06,1.39E-05,4.87E-05,7.18E-05,0.000157594,6.49E-05,0.000111243,0.000136736,9.27E-05,4.4E-05,9.5E-05,6.72E-05,2.32E-05,2.78E-05,5.33E-05,0.000152959\nSRI-1053404-001.txt,Nc1nc(cs1)-c1cccs1,0.58801146,0.585420384,0.584680076,0.585494414,0.588825798,0.593637797,0.601040872,0.610886962,0.623694283,0.637760126,0.653528676,0.671444118,0.689063437,0.707497094,0.726819121,0.745548901,0.764056589,0.782490246,0.799517319,0.815581993,0.830610235,0.844453986,0.857261306,0.868069796,0.877116354,0.88382354,0.887961859,0.891293243,0.892514751,0.892995951,0.892914517,0.891707815,0.890360456,0.88861333,0.886658918,0.884378771,0.880329289,0.875880041,0.870460989,0.865197403,0.859452617,0.854566587,0.850257997,0.847089481,0.846030841,0.845867974,0.847659518,0.850161757,0.853182212,0.857372352,0.863790819,0.870601648,0.880225646,0.889790419,0.901109721,0.912939835,0.92428875,0.935571036,0.946150031,0.955707401,0.965168531,0.973112031,0.980877857,0.986844735,0.991345805,0.995202807,0.997556985,0.999267096,1,0.997993767,0.995173195,0.991168131,0.984683037,0.97770934,0.968566543,0.957624797,0.946113015,0.932269265,0.916915287,0.89990302,0.882194864,0.862354622,0.84090051,0.816988577,0.791418355,0.765241081,0.736472731,0.707119537,0.676626271,0.64605157,0.615010475,0.583132833,0.551921468,0.520924792,0.489402498,0.458265163,0.42746837,0.396286617,0.365282538,0.334707838,0.3045255,0.274757734,0.246455778,0.219441956,0.19407902,0.170211506,0.149068323,0.129242887,0.112038141,0.096624938,0.082633126,0.070632741,0.06023142,0.051399551,0.043759578,0.036874718,0.03127059,0.026199483,0.022549767,0.019003694,0.015835178,0.013629062,0.011023179,0.009786865,0.00803974,0.006810829,0.005618934,0.00496006,0.004330799,0.003390608,0.00296123,0.002894602,0.002739138,0.00219131,0.002102473,0.001791544,0.001739723,0.001747126,0.001791544,0.001510227,0.001391778,0.00134736,0.001406584,0.001066043,0.001191895,0.001280732,0.001295538,0.00132515,0.001332554,0.001280732,0.00122891,0.001184492,0.001132671,0.001073446,0.001021624,0.000984609,0.000940191,0.000910578,0.000873563,0.000858757,0.000829144,0.000792129,0.000755114,0.000718098,0.000658874,0.000666277,0.000829144,0.000873563,0.000362751,0.000310929,0.000747711,0.000496006,0.000444185,0.000806935,0.00076992,0.001036431,0.000355348,0.000222092,0.000496006,0,0.000155465\nSRI-0000140.txt,OC(=O)C1=C(O)C=C(NC(=O)C(Cl)C2=CC=CC=C2)C=C1,0.800394769,0.78559092,0.741179373,0.706637059,0.667160128,0.635085122,0.57093511,0.533925487,0.482112016,0.452504318,0.408092771,0.36861584,0.331606218,0.304465828,0.27485813,0.264988897,0.245250432,0.237848507,0.237848507,0.237848507,0.245250432,0.250185048,0.262521589,0.282260054,0.287194671,0.299531211,0.31433506,0.334073526,0.354305453,0.373056995,0.388107575,0.414507772,0.428571429,0.435233161,0.455711818,0.466814705,0.479151246,0.487540094,0.490500864,0.49247471,0.485319516,0.475943745,0.476437207,0.457438934,0.433752776,0.424377005,0.445842586,0.476437207,0.500863558,0.539847027,0.561065877,0.592400691,0.62546262,0.659018011,0.681717246,0.702442635,0.727115717,0.762891685,0.784357266,0.820873427,0.833456699,0.845546509,0.872933629,0.900074019,0.910189983,0.92746114,0.955094991,0.961263262,0.970392302,0.967678263,0.978534419,0.999013077,0.984209228,1,0.991857883,0.990130767,0.995312114,0.982728843,0.971872687,0.968911917,0.954108068,0.942264989,0.924006908,0.902047866,0.886503824,0.867505551,0.845546509,0.811744387,0.786084382,0.748581298,0.726375524,0.692820133,0.659264742,0.637058969,0.594127807,0.575622995,0.548235875,0.503577597,0.482852208,0.461386627,0.420429312,0.396496422,0.368122378,0.34443622,0.313348137,0.289415248,0.266716013,0.233160622,0.20848754,0.187021959,0.165556378,0.151492721,0.124352332,0.109055021,0.092770787,0.078707131,0.056501357,0.05452751,0.047125586,0.043424624,0.047125586,0.049592894,0.041697508,0.0424377,0.048605971,0.042931162,0.048112509,0.053540587,0.045645201,0.039970392,0.033061929,0.034295584,0.045151739,0.035282507,0.038490007,0.047125586,0.036022699,0.037996546,0.027387121,0.03010116,0.03626943,0.028374044,0.040710585,0.032075006,0.033061929,0.034542314,0.031334814,0.026646928,0.020231927,0.014803849,0.010856156,0.008142117,0.007401925,0.008142117,0.009375771,0.010362694,0.010609425,0.011349618,0.011102887,0.011102887,0.010856156,0.010362694,0.009622502,0.009375771,0.010362694,0.011102887,0.011843079,0.016530965,0.003454231,0.009375771,0.001233654,0.007155194,0.013816926,0.004934616,0.000986923,0.001727116,0.007648655,0,0.000986923,0.001727116,0.017517888\nSRI-0000154.txt,COC(=O)NCCCCCCCCNC(=O)OC,1,0.960270163,0.960270163,0.960270163,0.956297179,0.972189114,0.928486293,0.908621375,0.89272944,0.86094557,0.841080652,0.813269766,0.75367501,0.717918157,0.705999205,0.658323401,0.638458482,0.606674613,0.586809694,0.555025824,0.543106873,0.523241955,0.519268971,0.495431069,0.491458085,0.467620183,0.455701232,0.455701232,0.447755264,0.428684942,0.413190306,0.398490266,0.401668653,0.381009138,0.361144219,0.326976559,0.305522447,0.31227652,0.296781883,0.274533174,0.264600715,0.244735797,0.199443782,0.194278903,0.168057211,0.141835518,0.138657132,0.145013905,0.156535558,0.142232817,0.144219309,0.158124752,0.173619388,0.181962654,0.185538339,0.193087008,0.201430274,0.216924911,0.222487088,0.251489869,0.243543901,0.234803337,0.249503377,0.253476361,0.259833135,0.253476361,0.261819627,0.281684545,0.26340882,0.27810886,0.280095352,0.292411601,0.288438617,0.284862932,0.277711561,0.29757648,0.29757648,0.284862932,0.276916965,0.28287644,0.2681764,0.259833135,0.26579261,0.268573699,0.270162892,0.255065554,0.248311482,0.236789829,0.254668256,0.2681764,0.264203417,0.289233214,0.308700834,0.324990068,0.343265793,0.343265793,0.348430671,0.363925308,0.38776321,0.382201033,0.402860548,0.398092968,0.425109257,0.422725467,0.449741756,0.449344458,0.447357966,0.449741756,0.454112038,0.479141836,0.481128327,0.5121176,0.495431069,0.47318236,0.502979738,0.502979738,0.486690505,0.510131108,0.503377036,0.519666269,0.491855383,0.483114819,0.500595948,0.489868892,0.480333731,0.474771553,0.45371474,0.458085022,0.466428288,0.464044497,0.425903854,0.431466031,0.430274136,0.433452523,0.423122765,0.400476758,0.40007946,0.391736194,0.381406436,0.36829559,0.357965832,0.359952324,0.334922527,0.311879221,0.31227652,0.305919746,0.296384585,0.287644021,0.275327771,0.258243941,0.241160111,0.224870878,0.212951927,0.205005959,0.199841081,0.195470799,0.189511323,0.183154549,0.176003178,0.167659913,0.157727453,0.146205801,0.133492253,0.119189511,0.102105681,0.085816448,0.078267779,0.073500199,0.05363528,0.05125149,0.035756853,0.029400079,0.063567739,0.019864919,0.026221692,0.040524434,0.011918951,0.011521653,0,0.001589193,0.015494636\nSRI-1052808-001.txt,Cc1coc2cc3oc(=O)c(CC(=O)N[C@H](Cc4c[nH]c5ccccc45)C(O)=O)c(C)c3cc12,0.992835019,1,0.998120661,0.996711156,0.986609707,0.9689909,0.944207113,0.916897962,0.88612378,0.847726528,0.812324473,0.778449381,0.747710436,0.724077744,0.707586541,0.696110825,0.690637249,0.690085193,0.694372436,0.702065981,0.712836945,0.726027558,0.740545455,0.753994477,0.767760638,0.77944778,0.789008919,0.797184045,0.803843954,0.808213418,0.808610428,0.805762054,0.798699262,0.787501923,0.771975056,0.752958491,0.731095902,0.707999995,0.682691167,0.656338131,0.628629621,0.601257043,0.575303366,0.550657005,0.527467132,0.504358305,0.479317283,0.452788059,0.427078696,0.404816747,0.388145832,0.377548707,0.372601346,0.372137384,0.375205406,0.380862217,0.388455923,0.397670559,0.408596568,0.421223379,0.434525578,0.447732636,0.460285448,0.47156031,0.480790215,0.487527647,0.492022792,0.495831978,0.501312601,0.508893386,0.517189495,0.523258587,0.524074925,0.519183944,0.510654092,0.500402296,0.490878744,0.482673078,0.475861648,0.470001633,0.464459931,0.459639425,0.454741397,0.45001016,0.445149719,0.440298674,0.434880304,0.429318634,0.423274209,0.416671854,0.409688934,0.402378304,0.394835106,0.386817374,0.379053353,0.371263492,0.363589914,0.356524773,0.349809658,0.343706504,0.338060263,0.333128172,0.328765756,0.325111615,0.321930833,0.319125919,0.316820205,0.3146989,0.312695055,0.310813366,0.309203007,0.307336589,0.305363282,0.303148011,0.300686076,0.298076144,0.295052757,0.291708707,0.288051043,0.28389183,0.279200529,0.27396422,0.26843074,0.262086795,0.255183747,0.247644072,0.239761418,0.231656767,0.223639035,0.215904379,0.208627812,0.200859093,0.192512477,0.183915674,0.175112144,0.166383787,0.157677747,0.148869519,0.140280938,0.131530264,0.122944032,0.114451767,0.106100453,0.09791593,0.089932262,0.082650996,0.077713032,0.074870531,0.070825253,0.063098819,0.054408049,0.046784979,0.041232706,0.037511614,0.034921649,0.032778028,0.030687263,0.028494309,0.026201515,0.023771294,0.021169583,0.018201402,0.01492078,0.011503906,0.008318426,0.006069092,0.004764125,0.003944263,0.003248908,0.002629901,0.002145971,0.001765404,0.001391886,0.00110881,0.00086802,0.00064015,0.000446343,0.000304218,0.000125681,8.46E-05,0\nSRI-1052818-001.txt,COc1ccc(cc1)N1C(=O)NC(CC(=O)N2CCN(CCOc3ccccc3)CC2)C1=O,1,0.981787204,0.962986899,0.93478644,0.899535867,0.858997709,0.81845955,0.772046296,0.725045532,0.684507373,0.641619176,0.600493508,0.560542859,0.5200047,0.486516656,0.451266083,0.420715587,0.388402562,0.360789613,0.335526702,0.31202632,0.292638505,0.270900652,0.252100347,0.236237589,0.220081076,0.205745843,0.191175607,0.179014159,0.169143999,0.158510076,0.148992421,0.142001058,0.133482169,0.129310851,0.124493273,0.122495741,0.11879443,0.115445626,0.115798132,0.116855649,0.116738147,0.117795664,0.118676929,0.12061571,0.1200282,0.120968216,0.12737207,0.128723342,0.129898361,0.129075847,0.128370836,0.125609541,0.120321955,0.115151871,0.114740615,0.109570531,0.108043006,0.101639152,0.090182715,0.07508372,0.064567299,0.057164679,0.047940779,0.038951883,0.031843017,0.027436696,0.02279537,0.018859056,0.014687739,0.012161448,0.00799013,0.007285118,0.006815111,0.007520122,0.005992597,0.005052582,0.004641325,0.002526291,0.004112567,0.004700076,0.004347571,0.006815111,0.005228835,0.002937548,0.002585042,0.003407555,0.000763762,0.00182128,0.003407555,0.001645027,0.00123377,0.002350038,0.00305505,0.002820046,0.004406322,0.003407555,0.004641325,0.003642559,0.005052582,0.005170084,0.004758827,0.003936314,0.001410023,0.001762529,0.000411257,0.002173785,0.002820046,0.002408789,0.00246754,0.002643793,0.003290053,0.00428882,0.00246754,0.007285118,0.004758827,0.005228835,0.004700076,0.004641325,0.004582574,0.003172552,0.006697609,0.003113801,0.005640092,0.006110099,0.002585042,0.003407555,0.005170084,0.004230069,0.004230069,0.003760061,0.002820046,0.004053816,0.004406322,0.003113801,0.00493508,0.004817578,0.002056283,0.003290053,0.002643793,0.006051348,0.003936314,0.001527525,0.004112567,0.002937548,0.002643793,0.003113801,0.003466306,0.003172552,0.002408789,0.001410023,0.000940015,0.000646261,0.000470008,0.000470008,0.000705011,0.000940015,0.001057517,0.001292521,0.001410023,0.001586276,0.001703778,0.001645027,0.001292521,0.000705011,0.000411257,0,0.002350038,0.002291287,5.88E-05,0.003818812,0.005170084,0.003290053,0.001468774,0.005111333,0.002173785,0.001292521,0.001351272,0.00058751,0.001351272,0.004112567\nSRI-1053101-001.txt,O=C(Cn1nnc2ccccc2c1=O)N1CCC(Cc2ccccc2)CC1,1,0.970067089,0.942086324,0.91540699,0.890679802,0.865952615,0.839273281,0.811292516,0.781359605,0.750775978,0.719541636,0.687005863,0.65154187,0.612694157,0.568575649,0.52107342,0.471749188,0.424312031,0.380323666,0.340564951,0.307508606,0.280438843,0.258249445,0.240159555,0.225518458,0.213154864,0.202287916,0.192331969,0.183417167,0.174957866,0.167669853,0.161357913,0.156399461,0.151974596,0.147764467,0.143684481,0.139070908,0.134867287,0.130904429,0.127774488,0.125789806,0.125087033,0.125418898,0.127169323,0.130357828,0.134131978,0.138556843,0.144042375,0.150178621,0.156711805,0.163472738,0.16994085,0.175940447,0.182343487,0.18874002,0.195312246,0.201513564,0.207688854,0.213961751,0.219466804,0.224171477,0.228323041,0.231609154,0.233632879,0.235259668,0.235936412,0.235871341,0.235279189,0.233834601,0.231888962,0.229168971,0.2253753,0.221152157,0.21590739,0.210916403,0.206738809,0.20261978,0.198656923,0.195572532,0.192728905,0.190392837,0.18754921,0.183443196,0.178250486,0.172075197,0.164617997,0.15722587,0.149462834,0.142838551,0.137144791,0.132954183,0.130546536,0.129349219,0.129082426,0.128177932,0.125906935,0.120811833,0.112755975,0.102227399,0.090397392,0.078105377,0.065976041,0.055258757,0.045914483,0.037884654,0.031000085,0.025677232,0.020946531,0.017465203,0.014738705,0.012591344,0.010092597,0.008771644,0.00706677,0.006259883,0.005212231,0.00457453,0.003741614,0.003481328,0.002531283,0.001841525,0.002069275,0.001607267,0.001405545,0.001054159,0.001255881,0.001275402,0.001054159,0.001080188,0.000735308,0.000715787,0.00093703,0.000702773,0.000683251,0.000592151,0.000793873,0.000670237,0.000305836,0.000286315,0.000390429,0.000553108,0.000448994,0.000260286,0.000104114,0.00013665,0.000143157,0.0001822,0.000188707,0.000214736,0.000201722,0.000169186,0.000149665,0.000156172,0.000130143,0.000104114,8.46E-05,9.76E-05,0.000110622,0.00013665,0.000156172,0.000169186,0.000188707,0.000221243,0.000240765,0.000247272,0.000188707,0.000169186,0.000383922,3.9E-05,0,0.00013665,0.000292822,0.000383922,0.000462008,0.000292822,0.00022775,0.000286315,0.000422965,0.000488037,0.000234258,2.6E-05\nSRI-1053277-001.txt,CC(C)C(NS(=O)(=O)c1cccc2cccnc12)C(O)=O,1,0.92636681,0.852482483,0.780808157,0.71430724,0.651523142,0.592857681,0.538361084,0.487983124,0.439212436,0.393907431,0.350310153,0.308521058,0.268389462,0.230166503,0.195308772,0.165021723,0.139707175,0.119264673,0.103091489,0.090735578,0.081192396,0.073959667,0.068685803,0.064968985,0.062507848,0.061151711,0.060548984,0.060825234,0.061709234,0.063306462,0.065235189,0.067716417,0.07064969,0.073869258,0.0775911,0.081383259,0.08547176,0.08967076,0.094251488,0.099158693,0.104131194,0.109369899,0.114844672,0.120244105,0.126030287,0.131570356,0.136974811,0.142545016,0.147813858,0.153173108,0.158160677,0.163218564,0.168000201,0.172309701,0.176016475,0.179095407,0.181576634,0.183324544,0.184575203,0.185459203,0.185936362,0.186257817,0.185805771,0.185198021,0.184218589,0.182350134,0.18015018,0.177397725,0.174062633,0.170320701,0.165920792,0.161043723,0.156171677,0.15216354,0.148522062,0.144689721,0.140897561,0.13756247,0.134990834,0.134362993,0.134453402,0.134870288,0.134599061,0.132158015,0.128265401,0.124458173,0.120686105,0.116326377,0.110871694,0.105080489,0.100359125,0.098530852,0.100605239,0.105904217,0.111308672,0.112363445,0.106672694,0.093633692,0.077355032,0.060965871,0.046922324,0.036043095,0.027695321,0.02198448,0.017453979,0.013963183,0.011522138,0.009367387,0.007820387,0.006805796,0.005595319,0.004867023,0.004209046,0.0036465,0.003013637,0.002626887,0.002285341,0.00226525,0.001983977,0.001768,0.001592205,0.00160225,0.001426455,0.001637409,0.001295864,0.001069841,0.001170296,0.001180341,0.000858886,0.000858886,0.001079886,0.000974409,0.000989477,0.000813682,0.000843818,0.000783546,0.000316432,0.000657977,0.000768477,0.000592682,0.0005525,0.000271227,0.000336523,0.000271227,0.000311409,0.000311409,0.000241091,0.000160727,6.53E-05,1E-05,5.02E-06,0,0,2.01E-05,6.03E-05,9.54E-05,0.000130591,0.000155705,0.000180818,0.000205932,0.000226023,0.000226023,0.000221,0.000210955,0.000221,0.000326477,0.000527386,0.000371682,0.000286295,0.000281273,0.000221,0.000170773,0.000236068,0.000371682,0.000200909,0.000271227,0.000336523,0.00016575,0.000351591,0.000175795\nSRI-1053215-001.txt,COC(=O)[C@H](CC(C)C)NC(=O)Cn1nnc2ccccc2c1=O,0.983467185,0.988792361,0.993993696,0.99808046,1,0.99808046,0.990711902,0.976160548,0.956655542,0.932196883,0.903775302,0.873248419,0.838510932,0.796962173,0.748230617,0.691263615,0.628290309,0.565378923,0.505563571,0.450763791,0.405190189,0.36741859,0.337387072,0.313361858,0.294723741,0.27949126,0.266735605,0.255342204,0.244623739,0.234202493,0.224388069,0.215743946,0.20799148,0.201254512,0.194994334,0.189006607,0.182845502,0.176015654,0.169582098,0.163482913,0.157879094,0.153352694,0.151074014,0.150436231,0.152238122,0.155848096,0.16077698,0.167346762,0.17492585,0.183099376,0.192176944,0.2011864,0.210542611,0.220109352,0.229750398,0.239106609,0.248202753,0.257558964,0.266568419,0.274921516,0.282995969,0.289881546,0.295974538,0.301033456,0.304915881,0.307813767,0.309683771,0.309912878,0.309838573,0.308216252,0.305733233,0.302315213,0.298086033,0.293274798,0.287720515,0.282314842,0.277534567,0.273249658,0.269751141,0.266426002,0.263466194,0.260264897,0.256097636,0.250475241,0.243484399,0.234951733,0.22558933,0.215595336,0.205997635,0.197285398,0.189811575,0.18439971,0.18077116,0.178659666,0.177142609,0.17456671,0.169445872,0.161216617,0.149327851,0.134751729,0.118807161,0.102391995,0.086676533,0.072453358,0.059970154,0.049276457,0.040236042,0.033146127,0.02722032,0.022539118,0.018570004,0.015362514,0.012873304,0.010415054,0.009028031,0.007603856,0.00620445,0.005213719,0.004668817,0.003901001,0.003120801,0.002749277,0.002520171,0.001975269,0.001566593,0.001312718,0.001517056,0.000996923,0.000922618,0.001040267,0.000743048,0.000829737,0.001102188,0.000854505,0.000563478,0.000439637,0.000433445,0.000513941,0.000495365,0.00056967,0.000328179,0.000222914,0.000272451,0.000464405,0.000501557,0.000458213,0.000458213,0.000402484,0.000297219,0.000229106,0.000154802,9.29E-05,5.57E-05,3.72E-05,3.1E-05,3.1E-05,3.1E-05,4.33E-05,3.72E-05,3.1E-05,3.72E-05,3.72E-05,3.72E-05,4.33E-05,4.95E-05,7.43E-05,0.000160994,5.57E-05,0.000191954,0,6.19E-05,0.000303411,0.000340564,0.000439637,0.00042106,0.000414868,8.67E-05,1.86E-05,0,0.000191954,0.000291027\nSRI-0000234.txt,CC1=C(C)C=C2NC(=O)CCC2=C1,1,0.882078726,0.769893769,0.665405645,0.573406719,0.494477886,0.43108794,0.383164269,0.34918203,0.328705553,0.318249479,0.316797247,0.323114458,0.333643143,0.349327253,0.367262324,0.387375743,0.409812735,0.433266289,0.458026852,0.482932638,0.507475367,0.532163318,0.55685127,0.580885717,0.60521061,0.62895461,0.651899883,0.673864899,0.693273985,0.710613641,0.725956477,0.740093959,0.750332198,0.757709539,0.761710439,0.761572477,0.757462659,0.748821876,0.736608602,0.721171371,0.703599358,0.684335495,0.663234557,0.640855655,0.616930126,0.591153,0.563959947,0.534392495,0.502682999,0.470007769,0.437216361,0.404214379,0.372562972,0.343416667,0.317116738,0.293554266,0.272932566,0.255948707,0.241281159,0.22853782,0.21804544,0.20848249,0.199536738,0.190874171,0.182262433,0.173469165,0.164850166,0.156674097,0.148853826,0.141716103,0.134549336,0.127222823,0.119751087,0.110877947,0.101431175,0.091890008,0.081818776,0.071689455,0.062997843,0.05604165,0.050065714,0.045578315,0.042165569,0.039950915,0.038709256,0.038498682,0.039014225,0.039791169,0.040510024,0.041700855,0.042739201,0.043494362,0.044387485,0.045353219,0.045629143,0.046217298,0.046761885,0.046863541,0.04723386,0.048279468,0.04960826,0.05066839,0.052752344,0.054589418,0.055635025,0.055533369,0.054945215,0.053565594,0.052004444,0.050334377,0.049049151,0.046965197,0.045527487,0.044314873,0.042884424,0.041846078,0.04198404,0.041715377,0.042652067,0.043951815,0.044438313,0.045055512,0.04298608,0.040176011,0.035398166,0.029937772,0.024760563,0.020294948,0.017041948,0.014050349,0.011915567,0.010521424,0.009214415,0.008205113,0.007704093,0.007660526,0.006927149,0.006331733,0.005692751,0.005300648,0.004262302,0.003710454,0.003136822,0.002294527,0.001655545,0.001263442,0.00100204,0.000682549,0.000413886,0.000210574,5.81E-05,0,0,4.36E-05,0.000101656,0.000159746,0.000225096,0.000275924,0.000326752,0.000370319,0.000413886,0.000464714,0.000471976,0.00043567,0.000406625,0.000457453,0.000508281,0.000544587,0.000355797,0.000602676,0.000820511,0.000486498,0.000580893,0.000544587,0.000428409,0.000573632,0.000653505,0.000566371,0.000914906,0.000638982\nSRI-0000235.txt,CCOC(=O)C(CC1=CC(N)=CC=C1)(NC(C)=O)C(=O)OCC,1,0.877427647,0.774133663,0.689642041,0.622524752,0.572781797,0.535891089,0.508044554,0.490194212,0.477341965,0.469487814,0.463061691,0.460205636,0.456159558,0.452351485,0.449257426,0.444497334,0.438785225,0.43021706,0.419744859,0.409272658,0.396182407,0.380950114,0.366217631,0.350414128,0.3333254,0.315332254,0.297458111,0.278727152,0.261400419,0.244454494,0.229555407,0.215346535,0.202494288,0.190403656,0.180240861,0.16981626,0.162557121,0.156321401,0.149752475,0.142064928,0.133377761,0.125618812,0.116907845,0.109505903,0.102222963,0.094868621,0.087561881,0.080778751,0.07501904,0.069544935,0.065332254,0.062119193,0.062119193,0.063666222,0.065736862,0.069925743,0.072996002,0.077541889,0.081968774,0.085324638,0.090156131,0.094511615,0.097534273,0.102222963,0.10469821,0.107197258,0.106816451,0.107435263,0.107506664,0.107078256,0.105531226,0.101080541,0.09789128,0.094178408,0.08908511,0.084943831,0.079374524,0.074685834,0.068949924,0.063951828,0.059643945,0.054883854,0.050242765,0.046625095,0.042626618,0.038818545,0.034724867,0.030631188,0.027917936,0.023705255,0.020515994,0.018159749,0.015279893,0.013994669,0.01147182,0.010376999,0.009163176,0.006854532,0.005426504,0.005640708,0.004260282,0.00261805,0.002261043,0.001261424,0.003046458,0.002641851,0.002380046,0.00366527,0.003403465,0.003570069,0.002403846,0.002808454,0.003950876,0.005164699,0.004950495,0.004760091,0.006140518,0.006997334,0.006092917,0.008115956,0.008710967,0.008615765,0.008806169,0.009853389,0.011424219,0.011257616,0.012376238,0.013161653,0.01511329,0.015660701,0.016279513,0.016898324,0.016565118,0.018016946,0.018302551,0.019968583,0.021111005,0.02189642,0.023800457,0.024419269,0.02501428,0.025752094,0.027251523,0.027346725,0.027275324,0.027394326,0.027418126,0.027394326,0.027537129,0.027727532,0.027798934,0.027846535,0.027870335,0.027775133,0.027656131,0.027465727,0.027227723,0.026942117,0.026632711,0.026180503,0.025680693,0.025061881,0.024324067,0.023538652,0.02289604,0.02237243,0.020682597,0.018849962,0.018469155,0.015398896,0.013732864,0.01251904,0.010234196,0.00885377,0.006949733,0.004379284,0.003689071,0.002499048,7.14E-05,0\nSRI-1053399-001.txt,Nc1cccc2c(n[nH]c12)-c1cccs1,1,0.979786972,0.958519352,0.933736422,0.908777727,0.880127957,0.850775126,0.821246529,0.790136042,0.757795198,0.725630119,0.693289275,0.66094843,0.628783351,0.597321334,0.567616972,0.539441769,0.515115829,0.493250606,0.476078321,0.463352902,0.454705241,0.450293528,0.449397124,0.451857841,0.456251977,0.462561957,0.469821071,0.477994165,0.486430907,0.493971245,0.501107322,0.507944599,0.513358175,0.517066826,0.518894787,0.518455373,0.516697719,0.512830878,0.506327557,0.497205329,0.487960066,0.477449292,0.466534257,0.455900446,0.443895666,0.431082364,0.417548423,0.404330861,0.388722888,0.372798538,0.356628115,0.341283791,0.327204978,0.315375962,0.30551552,0.297922452,0.292368264,0.289274792,0.287657749,0.287499561,0.28908145,0.290399691,0.292122192,0.294776251,0.296797553,0.297869723,0.299293423,0.301455338,0.304812458,0.307378634,0.311667311,0.316553591,0.321861708,0.326290997,0.330526945,0.335922944,0.33991282,0.345976729,0.353446761,0.363922382,0.375716244,0.38754526,0.400727669,0.414437375,0.427391289,0.439993672,0.452894857,0.464671143,0.475533448,0.485042359,0.493865785,0.501792808,0.507839139,0.513252716,0.517435933,0.520213028,0.521337927,0.521232467,0.518912363,0.516732872,0.51302422,0.506661511,0.498136886,0.488364327,0.477097761,0.46463599,0.448746792,0.433982494,0.418743629,0.401342848,0.383889338,0.366312792,0.348964741,0.330386332,0.313003129,0.294758674,0.276285724,0.258392801,0.239726509,0.22069111,0.199810173,0.180704468,0.161844834,0.142774282,0.125953528,0.109941294,0.096266742,0.082873414,0.07225718,0.062484621,0.054504869,0.047456674,0.042201287,0.03684044,0.033237248,0.029757092,0.02671635,0.023165887,0.020775477,0.020160298,0.01892994,0.016416494,0.01450065,0.013481211,0.01267269,0.01205751,0.011723556,0.011354449,0.010299856,0.008964038,0.007751257,0.006837276,0.006151791,0.005642071,0.005272964,0.004956586,0.004622632,0.00432383,0.004025029,0.003708651,0.00335712,0.002917707,0.002407987,0.001827961,0.001441277,0.001652195,0.001634619,0.001300664,0.001212782,0.001195205,0.000263648,0,0.000773368,0.000562449,0.000632756,0.000544873,0.000632756,0.000562449,0.000773368,0.000632756\nSRI-0000631.txt,NC(C=O)C(O)CO,1,0.982384824,0.934281843,0.959349593,0.945121951,0.89295393,0.844850949,0.775745257,0.732384824,0.657859079,0.634146341,0.62601626,0.54403794,0.472899729,0.410569106,0.373306233,0.319783198,0.273712737,0.249322493,0.194444444,0.184281843,0.134823848,0.100271003,0.093495935,0.050813008,0.040650407,0.045392954,0.0399729,0.032520325,0.026422764,0.04200542,0.046747967,0.052168022,0.050813008,0.027777778,0.035907859,0.057588076,0.06097561,0.045392954,0.064363144,0.057588076,0.06300813,0.048102981,0.052168022,0.050813008,0.046747967,0.062330623,0.058265583,0.049457995,0.054878049,0.06300813,0.052845528,0.058943089,0.048102981,0.053523035,0.037940379,0.035907859,0.046070461,0.026422764,0.02100271,0.052845528,0.04200542,0.025067751,0.06097561,0.053523035,0.06504065,0.031842818,0.04403794,0.058265583,0.042682927,0.04403794,0.06097561,0.06097561,0.075203252,0.048780488,0.039295393,0.048780488,0.050135501,0.051490515,0.06097561,0.081300813,0.061653117,0.077913279,0.059620596,0.06300813,0.058265583,0.044715447,0.0399729,0.047425474,0.032520325,0.062330623,0.064363144,0.04403794,0.027100271,0.016260163,0.056910569,0.053523035,0.030487805,0,0.02100271,0.027100271,0.046747967,0.04403794,0.036585366,0.049457995,0.036585366,0.020325203,0.025745257,0.049457995,0.041327913,0.030487805,0.037940379,0.057588076,0.04200542,0.02303523,0.024390244,0.062330623,0.029810298,0.048780488,0.025745257,0.015582656,0.030487805,0.041327913,0.035230352,0.056233062,0.011517615,0.036585366,0.071815718,0.037262873,0.031842818,0.026422764,0.024390244,0.052168022,0.035907859,0.056910569,0.031165312,0.024390244,0.050813008,0.017615176,0.020325203,0.025745257,0.043360434,0.036585366,0.026422764,0.027777778,0.025067751,0.02303523,0.018292683,0.013550136,0.010162602,0.006775068,0.005420054,0.005420054,0.004065041,0.004065041,0.004065041,0.004065041,0.004742547,0.007452575,0.009485095,0.012195122,0.014905149,0.019647696,0.023712737,0.023712737,0.014227642,0.010840108,0.00203252,0.008807588,0.01897019,0.051490515,0.046070461,0.029810298,0.016260163,0.015582656,0.034552846,0.010840108,0.021680217,0.005420054,0.015582656,0.016937669\nSRI-0000143.txt,CCOC(=O)C(=O)NC1=CC=C(C=C1)C(C)=O,0.496211879,0.477251272,0.455650581,0.430689782,0.403168901,0.373327946,0.341766937,0.309245896,0.276604851,0.244563826,0.215522897,0.190722103,0.170761464,0.155680982,0.14532065,0.139200454,0.135760344,0.134920317,0.136040353,0.138280425,0.141720535,0.146000672,0.150920829,0.156481007,0.162441198,0.169081411,0.176081635,0.183629876,0.191706135,0.200394413,0.209766713,0.219783033,0.230359371,0.241807738,0.254092131,0.267244552,0.281220999,0.296325482,0.312622004,0.329882556,0.348495152,0.368471791,0.389292457,0.411741176,0.435253928,0.460266729,0.48563554,0.511816378,0.538637236,0.5656141,0.592550962,0.619623828,0.646048674,0.672681526,0.698454351,0.724035169,0.748919965,0.773164741,0.796737496,0.819190214,0.840578899,0.86094755,0.879812154,0.897420717,0.913493232,0.928017697,0.941322122,0.953822522,0.964866876,0.9749992,0.983339467,0.989959679,0.995351851,0.998263944,1,0.999983999,0.997871932,0.993819802,0.98718759,0.978711319,0.967122948,0.952774489,0.936533969,0.917721367,0.896052674,0.873319946,0.847991136,0.821170277,0.793065378,0.764232455,0.734339499,0.703830523,0.672421517,0.641088515,0.609751512,0.578854523,0.548081539,0.517476559,0.487443598,0.457894653,0.42937774,0.401268841,0.374127972,0.347859131,0.32250632,0.297561522,0.273924766,0.25124404,0.229599347,0.208806682,0.189022049,0.170529457,0.153176902,0.137064386,0.1218759,0.108031457,0.09562306,0.083986688,0.073658357,0.064218055,0.056001792,0.048729559,0.042261352,0.036593171,0.031613012,0.027260872,0.023472751,0.02031665,0.017532561,0.015064482,0.012996416,0.011324362,0.009888316,0.008556274,0.00751224,0.006436206,0.005812186,0.005228167,0.004588147,0.00405213,0.003592115,0.003292105,0.002868092,0.002480079,0.002244072,0.002028065,0.001904061,0.00186406,0.001820058,0.001664053,0.001464047,0.001284041,0.001132036,0.001028033,0.00095203,0.000888028,0.000824026,0.000760024,0.000696022,0.00062802,0.000560018,0.000472015,0.000388012,0.00030001,0.000268009,0.000240008,0.000216007,0.000228007,0.000132004,0.000348011,0.000124004,0.000124004,0.000216007,0.00030001,0.000120004,0.000124004,0.000192006,0.000124004,0,8.8E-05,0.000196006\nSRI-1052984-001.txt,OC(=O)C(Cc1ccccc1)NS(=O)(=O)c1ccc2NC(=O)c3cccc1c23,1,0.997202015,0.995803022,0.988808058,0.972020145,0.966424175,0.945439284,0.924454393,0.90766648,0.878287633,0.851706771,0.819529938,0.785954113,0.759373251,0.711807499,0.668438724,0.622271964,0.569110241,0.525741466,0.478175713,0.44040291,0.408226077,0.376049245,0.350867375,0.325685506,0.306099608,0.297705652,0.300223839,0.309736989,0.314213766,0.320649133,0.318270845,0.316871852,0.311695579,0.312115277,0.306379407,0.289171796,0.281757135,0.264969222,0.252238388,0.237968663,0.216004477,0.199496363,0.193200895,0.185086738,0.171516508,0.164661444,0.157946279,0.154168998,0.151510912,0.150251819,0.14997202,0.150251819,0.153189703,0.170537213,0.172915501,0.184806939,0.193760492,0.197957471,0.211667599,0.216144376,0.216284275,0.219501959,0.222579743,0.224398433,0.223838836,0.216983772,0.213766088,0.207330722,0.194739787,0.185086738,0.183407946,0.171516508,0.165920537,0.16340235,0.156127588,0.150811416,0.137660884,0.139619474,0.135562395,0.132484611,0.128707331,0.121572468,0.121292669,0.114717403,0.110940123,0.107302742,0.104924454,0.099888081,0.092473419,0.091074426,0.089395635,0.090514829,0.089535534,0.092473419,0.088836038,0.087157247,0.090095132,0.076245104,0.074706212,0.074566312,0.062255176,0.058477896,0.048964745,0.040990487,0.036094012,0.041410185,0.045886961,0.044348069,0.040570789,0.043088976,0.041410185,0.036233912,0.051622832,0.046726357,0.055400112,0.056519306,0.050643537,0.054280918,0.066452154,0.066592054,0.072327924,0.068270845,0.063933968,0.066731953,0.064353665,0.056379407,0.059037493,0.054141018,0.05581981,0.052881925,0.056799105,0.054141018,0.050363738,0.060856184,0.059037493,0.058058198,0.05190263,0.044068271,0.052881925,0.043788472,0.048405148,0.051343033,0.050643537,0.051343033,0.052742026,0.051203134,0.048684947,0.045327364,0.042109681,0.039731393,0.038192501,0.037213206,0.037073307,0.037353106,0.037772804,0.037912703,0.037632904,0.037073307,0.036233912,0.035114717,0.033715725,0.031757135,0.028959149,0.025741466,0.023503078,0.022663682,0.02112479,0.014689424,0.01538892,0.017767208,0.008813654,0.012031337,0.005176273,0.005595971,0.007554561,0.004336877,0,0.002378288,0.000279799,0.001678791\nSRI-0000147.txt,OCCN(CCO)CC1=CC=CC(OCC(=O)NC2=CC=CC(=C2)[N+]([O-])=O)=C1,0.847097998,0.857657385,0.868007674,0.87793977,0.88693093,0.895817542,0.903763219,0.910977057,0.917249959,0.923104669,0.930004861,0.93622549,0.944118892,0.952064569,0.960271617,0.9694196,0.977260728,0.984108647,0.990852017,0.995765791,0.999111339,1,0.99775221,0.992577065,0.983219985,0.97035008,0.953219829,0.931839686,0.907542643,0.879403447,0.848608722,0.815263018,0.780641822,0.745607661,0.710819189,0.677091882,0.644681885,0.615314246,0.587227325,0.561382966,0.537640029,0.516071699,0.496228417,0.478052682,0.461466082,0.446855446,0.434032588,0.422689089,0.41326928,0.405297466,0.398946152,0.394126472,0.390488189,0.387320373,0.383671634,0.379202191,0.373410211,0.366212055,0.357550222,0.348721112,0.339954731,0.331188349,0.321392166,0.309306374,0.294340274,0.276702962,0.256802179,0.236718436,0.218103597,0.201041302,0.186090884,0.173325527,0.161767704,0.151751969,0.142426254,0.134323755,0.126775362,0.120000627,0.113753862,0.107784149,0.102269223,0.097820689,0.094009901,0.090068427,0.086707197,0.083685748,0.081197497,0.078954934,0.076911014,0.075306196,0.073868656,0.072687259,0.07199724,0.071087669,0.070120597,0.069827861,0.069331256,0.069054203,0.06847396,0.068426913,0.068254408,0.067930308,0.067637573,0.067167105,0.0669946,0.066581634,0.066158213,0.065483876,0.064867041,0.064062018,0.06359155,0.063094946,0.061767181,0.060998751,0.060015996,0.058902556,0.058045259,0.056900454,0.055682466,0.054401748,0.053209897,0.051876905,0.050449819,0.048912958,0.047308141,0.046210383,0.044877391,0.043366667,0.041808896,0.040407948,0.038959953,0.037626961,0.036382835,0.034872111,0.033560029,0.032404769,0.030993366,0.029634238,0.028275109,0.026806204,0.025661399,0.02418204,0.023319516,0.022023116,0.020794672,0.019879874,0.01915849,0.018688022,0.017971866,0.016654556,0.015164742,0.013805613,0.012791494,0.012111929,0.011641462,0.011238951,0.010831212,0.010381654,0.009885049,0.009341397,0.008724562,0.008013633,0.007182474,0.006251993,0.00528492,0.004469443,0.003915337,0.003659193,0.003241,0.002760077,0.002190289,0.001834824,0.001819142,0.001348674,0.001076848,0.000904343,0.000721384,0.000297963,0.000371147,8.89E-05,0\nSRI-0000153.txt,COC(=O)C1=C(OCC2=CC=CC=C2)C(OCC2=CC=CC=C2)=C(O1)C(=O)OC,1,0.922261516,0.843174966,0.764987126,0.689495419,0.617598555,0.551543311,0.491329688,0.437856395,0.391123433,0.351580158,0.318777214,0.29181589,0.269797476,0.253171326,0.240140019,0.232141493,0.227198584,0.225176484,0.225670775,0.228636521,0.234028786,0.24144315,0.250340387,0.260945174,0.272898028,0.286513496,0.30138716,0.317474083,0.334864137,0.353512386,0.37292454,0.393460082,0.414400043,0.435973596,0.45797853,0.48112932,0.50481035,0.529408064,0.552725116,0.576042168,0.59850095,0.620505884,0.643117448,0.664574168,0.684592951,0.703106394,0.720640242,0.736790075,0.752418655,0.765827421,0.77695346,0.786241636,0.793813275,0.799434711,0.80253077,0.803326129,0.801488265,0.796567823,0.789126498,0.779501305,0.767516997,0.752737698,0.736480019,0.717571144,0.696613208,0.672770411,0.646689823,0.618384927,0.587320988,0.554477602,0.520407475,0.485209467,0.44975982,0.414665163,0.380657946,0.347783105,0.316431579,0.287223478,0.259619576,0.233826576,0.210055675,0.18864389,0.168382455,0.150075716,0.13323837,0.117870415,0.104160582,0.091416863,0.079922351,0.069465851,0.06013274,0.051810678,0.044319923,0.037646995,0.031728985,0.02674114,0.02240486,0.018657236,0.015597126,0.012914474,0.010802504,0.00902755,0.007760368,0.006704383,0.005621436,0.004902467,0.004268876,0.003927366,0.003383646,0.003221878,0.002880368,0.002556832,0.00251639,0.002480442,0.002197348,0.002269245,0.001851344,0.001846851,0.001752486,0.001792928,0.001617679,0.00163116,0.001464899,0.001460405,0.001536795,0.001608692,0.001626667,0.001437937,0.001343573,0.001361547,0.001312118,0.001123388,0.001029024,0.001199779,0.001312118,0.001159337,0.001118895,0.001091934,0.000930166,0.001100921,0.000709982,0.000795359,0.000934659,0.000903204,0.000943646,0.000939153,0.000876243,0.000754917,0.000597643,0.00046733,0.000372965,0.000337017,0.000332523,0.000346004,0.000372965,0.000395433,0.000413407,0.000417901,0.000417901,0.000413407,0.00040442,0.000372965,0.000328029,0.000301068,0.000301068,0.000319042,0.000319042,0.000197716,0.000310055,0.000274107,3.59E-05,0.00020221,0.000148287,5.39E-05,0.000116832,0.000238158,0,5.84E-05,0.000242652,0.000220184\nSRI-1052971-001.txt,Cc1cc(=O)n(CC(=O)N[C@@H](Cc2c[nH]c3ccccc23)C(O)=O)c2ccccc12,0.981438613,0.99477961,1,0.998505949,0.995166305,0.982422929,0.963193613,0.937495935,0.90974174,0.875642222,0.83526769,0.789496997,0.735025654,0.674208988,0.612109196,0.552769004,0.498403123,0.44945098,0.406404733,0.36843826,0.336307374,0.309660534,0.288831705,0.273539653,0.262044249,0.251550737,0.239510443,0.223796542,0.205748405,0.187410247,0.171207703,0.158362379,0.14924691,0.143342772,0.140384551,0.139853724,0.141367109,0.144451885,0.149018408,0.154869815,0.161533283,0.168639693,0.176109948,0.183530987,0.191008274,0.198717577,0.206377664,0.214487725,0.222803437,0.230686754,0.238042758,0.244333592,0.248705009,0.251239623,0.252088595,0.251531402,0.250404712,0.249167286,0.248478265,0.248010715,0.247560742,0.245636053,0.241654846,0.234991378,0.225568311,0.212900516,0.198715819,0.1845944,0.172671873,0.163240017,0.155738123,0.148353995,0.139280711,0.128672949,0.11728828,0.106495958,0.097308423,0.090024485,0.084652932,0.08066821,0.078040438,0.076309096,0.075518128,0.075331811,0.075790573,0.076824104,0.078465803,0.080684029,0.083357502,0.086458097,0.089646578,0.092949309,0.096065724,0.099038007,0.101727299,0.103973648,0.106016104,0.107824785,0.109575461,0.111484331,0.113486359,0.115660643,0.11790875,0.12007073,0.121972569,0.123304911,0.123941201,0.123661726,0.122229194,0.11964888,0.116180924,0.11225948,0.108007586,0.103790847,0.100080327,0.096999067,0.094381841,0.092209315,0.090064912,0.088057611,0.085668887,0.082656177,0.078573023,0.073612774,0.06736764,0.060162799,0.052330456,0.04438562,0.036746625,0.029735131,0.023667526,0.018587753,0.014376286,0.010973365,0.008535426,0.00651582,0.005030558,0.003823013,0.003003921,0.002411574,0.001759465,0.001429016,0.001138994,0.001000135,0.000794484,0.000692537,0.000616955,0.000578286,0.000534343,0.000446458,0.000344511,0.000254868,0.000198621,0.000170498,0.000158194,0.000147647,0.000142374,0.000137101,0.000133586,0.000133586,0.000131828,0.000126555,0.000123039,0.000119524,0.000117766,0.000116009,7.91E-05,5.27E-05,0,2.81E-05,3.69E-05,1.76E-05,0.000101947,3.87E-05,9.32E-05,2.46E-05,0.00010722,6.5E-05,1.23E-05,5.27E-06,5.1E-05\nSRI-0000184.txt,NC1=NN=C(S1)C1=CC=CC=C1,0.517538159,0.501124775,0.484461441,0.467798107,0.45096814,0.433721589,0.416141772,0.399061854,0.38439812,0.370567553,0.359069853,0.348821902,0.340240285,0.332158568,0.325243285,0.318911218,0.313162368,0.307496834,0.302164567,0.297165567,0.292916417,0.28858395,0.284168166,0.279919016,0.275661534,0.271245751,0.267204892,0.263672266,0.261322735,0.260272945,0.260372925,0.26189762,0.265130307,0.270137639,0.277027928,0.285601213,0.295674198,0.307430181,0.321002466,0.336041125,0.352946077,0.370709191,0.390138639,0.410576218,0.432163567,0.45496734,0.478420982,0.503057722,0.527827768,0.553547624,0.579425782,0.605045658,0.631090449,0.657593481,0.683071719,0.70871659,0.733786576,0.758514964,0.782593481,0.805680531,0.828009398,0.849788376,0.869884356,0.889172166,0.907768446,0.924106845,0.939395454,0.952401186,0.964507099,0.975154969,0.983278344,0.991376725,0.996625675,0.999533427,1,0.998783577,0.99485103,0.989310471,0.981237086,0.972080584,0.960557888,0.947443845,0.933121709,0.915341932,0.895970806,0.874733387,0.851812971,0.825893155,0.798498634,0.769987669,0.739893688,0.708874892,0.67763114,0.646270746,0.614860361,0.583225022,0.55193128,0.520754182,0.489860361,0.459283143,0.428747584,0.398870226,0.368942878,0.339223822,0.310621209,0.282110245,0.254590749,0.227779444,0.202001266,0.177872759,0.155277278,0.134173165,0.115176965,0.097472172,0.08246684,0.069119509,0.057038592,0.04668233,0.03898387,0.031618676,0.025278278,0.020370926,0.016771646,0.013214024,0.011206092,0.00939812,0.007873425,0.006265414,0.004490769,0.00389922,0.00339932,0.002882757,0.00274945,0.002566153,0.002132907,0.001374725,0.001308072,0.00139972,0.001091448,0.001424715,0.001283077,0.001041458,0.000591548,0.000858162,0.000724855,0.000783177,0.000774845,0.00069986,0.000566553,0.000433247,0.00029994,0.00019996,0.000141638,0.000116643,0.000124975,0.000141638,0.000166633,0.000191628,0.000216623,0.000233287,0.000258282,0.000283277,0.00029994,0.000308272,0.000291608,0.000258282,0.000316603,5.83E-05,0.000166633,0.00064987,0.000516563,0.000733187,0.000158302,0.000424915,0,0.000224955,0.000358262,0.000241618,0.000158302,0.000641538,0.000391588\nSRI-0000231.txt,NC(=O)C1=CC=CC=C1O,0.915528573,0.883265938,0.86146686,0.847188464,0.841629699,0.841193718,0.845771524,0.8557991,0.86855156,0.886317809,0.904302048,0.924684186,0.945611301,0.96501248,0.982015761,0.993569272,1,0.999346028,0.991280369,0.976348,0.951824038,0.919561403,0.879538296,0.831373233,0.776439557,0.715009755,0.650190197,0.583539516,0.517575507,0.454085692,0.394410716,0.339073757,0.288456298,0.243059719,0.20332,0.169149945,0.140353363,0.117202742,0.099022311,0.085005504,0.074727239,0.067707936,0.062933938,0.060034661,0.058835711,0.059228095,0.061059217,0.063740504,0.067261055,0.072067752,0.077866306,0.084700317,0.092329994,0.101093224,0.110554024,0.120832289,0.131960718,0.144026508,0.156887964,0.170970168,0.185521052,0.201085594,0.217162414,0.233849608,0.250787492,0.26856464,0.286254591,0.304238831,0.322124974,0.340065615,0.357657471,0.375020437,0.391435142,0.407195876,0.421626865,0.434368426,0.445289764,0.455393637,0.463535592,0.469584837,0.474293437,0.476669537,0.477170916,0.475078204,0.470238809,0.463797181,0.453606112,0.441801912,0.42837368,0.41299443,0.396525227,0.379118663,0.360818337,0.34231092,0.323225828,0.303650256,0.283878492,0.263943235,0.243593796,0.223287955,0.20332,0.184333003,0.165585796,0.147797748,0.13214601,0.117137345,0.103349428,0.091087447,0.079108854,0.069081278,0.059674976,0.050606559,0.043707151,0.036829542,0.031379773,0.026126195,0.022376753,0.018594613,0.016011423,0.01324294,0.011084831,0.0094499,0.008436243,0.006921207,0.006169139,0.005395272,0.005275377,0.004882993,0.003237163,0.003324359,0.003291661,0.002866579,0.00307367,0.002485095,0.001798424,0.001863821,0.001591333,0.001700328,0.001111753,0.001613132,0.001460538,0.001373342,0.000664872,0.000871963,0.000871963,0.00094826,0.001144452,0.001155351,0.001013657,0.000686671,0.000392383,0.000196192,7.63E-05,1.09E-05,0,4.36E-05,0.000119895,0.000196192,0.000261589,0.000337886,0.000425082,0.000512278,0.000599475,0.000686671,0.00070847,0.00069757,0.000817465,0.00071937,0.000621274,0.000882863,0.000959159,0.000926461,0.000675771,0.000828365,0.000730269,0.00069757,0.000730269,0.000926461,0.000686671,0.001035456,0.000555876\nSRI-1053398-001.txt,OC(=O)CCN1C(=O)c2ccccc2C1=O,0.992404455,1,0.998843663,0.981952078,0.942863362,0.884933159,0.809816619,0.732455424,0.661556112,0.602446899,0.559299668,0.530413923,0.509146397,0.487765504,0.461215106,0.431966589,0.405008072,0.383672525,0.368708168,0.360545791,0.358006385,0.353381038,0.33397272,0.290870835,0.232283108,0.172865538,0.123056901,0.085392066,0.05947652,0.042439825,0.031717636,0.025341913,0.021641635,0.019512615,0.018317734,0.017705556,0.017438011,0.017277031,0.017469754,0.017578586,0.017687417,0.017954962,0.018408427,0.018918576,0.019197457,0.019796031,0.020521576,0.021342348,0.022072427,0.022981626,0.023967913,0.025026754,0.026203497,0.027457329,0.028724765,0.030157715,0.031670022,0.033243547,0.034955379,0.036739765,0.03861031,0.040607825,0.042548657,0.044741162,0.046917796,0.049212331,0.051391232,0.05360641,0.055776242,0.058016361,0.060143114,0.062335619,0.064410223,0.066421342,0.068228401,0.069761114,0.071214471,0.072293719,0.07296258,0.073214253,0.073162105,0.072790263,0.072103263,0.071017214,0.069690827,0.067974461,0.065906659,0.063360451,0.060322233,0.056959787,0.053223232,0.04908536,0.044834122,0.040453647,0.036039161,0.031899022,0.027910794,0.024260398,0.020802724,0.01788014,0.015331665,0.013066605,0.011050951,0.009357258,0.007915238,0.006693149,0.00559803,0.004795396,0.004106129,0.003534763,0.002967931,0.002507664,0.002169832,0.001904555,0.001700495,0.001346792,0.001226624,0.001049772,0.000925069,0.00078903,0.000671129,0.000566832,0.000664327,0.000514683,0.000437594,0.000317426,0.000301554,0.000269812,0.000303822,0.000235802,0.000269812,0.000108832,0.000219931,0.000163248,0.000188188,0.000149644,0.00012697,0.000149644,0.000176851,0.000149644,0.000140574,7.71E-05,0.000131505,8.39E-05,0.000117901,0.000111099,0.00013604,0.000149644,0.00016098,0.000145109,0.000113366,8.84E-05,8.39E-05,7.48E-05,6.58E-05,5.67E-05,5.21E-05,5.44E-05,5.44E-05,5.44E-05,4.99E-05,4.53E-05,4.99E-05,5.21E-05,6.35E-05,5.67E-05,1.59E-05,0,0.000106564,0.000120168,0.000145109,3.17E-05,4.53E-05,0.000104297,0.000111099,0.000111099,5.44E-05,0.000145109,0.000133772,6.58E-05,0.000104297\nSRI-1052788-001.txt,O=C(CCN1C(=O)c2ccccc2C1=O)NCC(c1cccs1)S(=O)(=O)c1ccccc1,0.990460218,0.999861742,1,0.98617423,0.95962875,0.916630604,0.865336996,0.809052285,0.753362082,0.704888931,0.667434919,0.640018416,0.620095481,0.601803987,0.583692227,0.564764748,0.547731398,0.533006953,0.521752776,0.513540268,0.507636664,0.498981732,0.481436829,0.45139343,0.41334491,0.373803207,0.338824008,0.309568677,0.286133997,0.267483032,0.252219382,0.239159559,0.227699378,0.216799141,0.206497559,0.196071546,0.185765816,0.175844443,0.166064094,0.156452418,0.14688775,0.137103252,0.12746669,0.118316795,0.11022872,0.103642123,0.098017799,0.092506847,0.086524436,0.079973786,0.073641583,0.068729287,0.065571481,0.063879207,0.062589263,0.06055964,0.057184769,0.053045333,0.048972261,0.045739796,0.043538734,0.042355248,0.041925266,0.042031725,0.042552956,0.043313374,0.044254908,0.045439777,0.046588699,0.047727942,0.049006826,0.050292622,0.051452605,0.052595996,0.053642607,0.054501187,0.055081869,0.055475904,0.055535355,0.055359767,0.054924256,0.054367077,0.053596982,0.0526195,0.051354442,0.049772773,0.047722412,0.045378944,0.042689831,0.039750472,0.036553954,0.033311811,0.030036486,0.026885593,0.023871575,0.021020701,0.018399335,0.015950791,0.013883839,0.01207681,0.010412188,0.009035141,0.007771466,0.006730385,0.005932638,0.005227524,0.004586008,0.003992882,0.003611291,0.003247673,0.002892351,0.002608923,0.002384945,0.00219415,0.001910721,0.001718543,0.001639736,0.001538808,0.001364604,0.001280266,0.001201459,0.001111592,0.001000986,0.000908353,0.000862728,0.000822633,0.000734148,0.000601421,0.000618012,0.000453485,0.000441042,0.000434129,0.000388504,0.000352557,0.00031108,0.000272368,0.000270985,0.00030555,0.00030555,0.000250246,0.000284811,0.000221212,0.000222595,0.000215682,0.000200474,0.000192178,0.000193561,0.000200474,0.000194943,0.000174205,0.000143788,0.000120284,0.000109224,0.000100928,9.82E-05,9.26E-05,8.99E-05,8.71E-05,8.43E-05,8.3E-05,7.88E-05,7.74E-05,7.47E-05,7.19E-05,6.91E-05,6.64E-05,6.36E-05,9.26E-05,7.47E-05,0.000100928,6.36E-05,8.02E-05,8.3E-05,7.6E-05,8.16E-05,0.000118902,7.47E-05,7.33E-05,0,2.49E-05,4.98E-05\nSRI-1053109-001.txt,C[C@@H](C(=O)NCCc1c[nH]c2ccccc12)n1nnc2ccccc2c1=O,0.985582051,0.995268792,1,0.997614003,0.985459692,0.963210777,0.927828681,0.88253552,0.82588338,0.76292976,0.697998006,0.635676573,0.57725023,0.523208412,0.473489939,0.427646163,0.385065289,0.34642029,0.311609202,0.280815562,0.254753131,0.232993652,0.215088476,0.200323843,0.188720147,0.17899262,0.170957723,0.164166808,0.158283387,0.153268714,0.149100357,0.145784432,0.143416789,0.141738434,0.140696344,0.139986663,0.139515581,0.139168898,0.139111797,0.139403419,0.140056,0.141563053,0.14403878,0.147401608,0.151678049,0.15654997,0.162084668,0.168259711,0.174667235,0.181303162,0.1879085,0.19453831,0.201013131,0.207418616,0.213361177,0.218412557,0.223539392,0.228052394,0.232449155,0.237025375,0.241401743,0.245170395,0.248194697,0.249769048,0.249924036,0.248480201,0.245360051,0.241489433,0.237608619,0.234949354,0.232697951,0.229657334,0.223969688,0.215298525,0.204341291,0.192547939,0.180948322,0.170566175,0.161629901,0.153921295,0.147216031,0.141173544,0.135473661,0.129822722,0.123918909,0.118112982,0.112156146,0.106305355,0.100825718,0.096059842,0.091954703,0.088816199,0.086650447,0.085194377,0.084180838,0.08289811,0.080803734,0.077402159,0.072585299,0.066581559,0.059945632,0.052803955,0.045686749,0.039179299,0.033220423,0.02814865,0.023651963,0.019830288,0.016869205,0.014191585,0.012011559,0.010272024,0.008728263,0.007584208,0.006546198,0.005493912,0.004769955,0.004337621,0.003766613,0.003273099,0.00291214,0.002551182,0.00216983,0.001927152,0.001696709,0.001558036,0.001388773,0.001201156,0.001105308,0.001150173,0.000944202,0.000917691,0.000925849,0.000723956,0.000791254,0.000715799,0.000668895,0.000605676,0.000568969,0.000491475,0.000424177,0.000434374,0.000426217,0.000377273,0.000403784,0.000330369,0.000307936,0.00029774,0.00029774,0.000279386,0.000256954,0.000240639,0.000224325,0.000205971,0.000191696,0.00017742,0.000169263,0.000161106,0.000152949,0.000142752,0.000136634,0.000134595,0.000128477,0.00011828,0.000112162,0.000104005,9.58E-05,0.000130516,8.97E-05,7.95E-05,0,6.53E-05,9.38E-05,1.22E-05,0.000106044,0.000114202,9.79E-05,8.97E-05,3.87E-05,6.12E-06,3.26E-05\nSRI-1052968-001.txt,CC(C1Sc2ccccc2NC1=O)C(=O)Nc1ccc(Oc2ccccc2)cc1,0.664980728,0.653596578,0.645465043,0.643838735,0.645465043,0.650343964,0.6584755,0.673112264,0.689375335,0.708891021,0.731659321,0.756053928,0.78370115,0.814600986,0.846964498,0.87932801,0.910065215,0.939989266,0.964383874,0.98406219,0.994633186,1,0.997397909,0.990567419,0.982435883,0.974792239,0.967311226,0.96129389,0.955764446,0.950722894,0.944217665,0.935435606,0.924458033,0.910195319,0.892956464,0.873180569,0.849160012,0.822228366,0.792613313,0.759908276,0.726422612,0.692936948,0.659874124,0.628405081,0.598513555,0.569093659,0.541316333,0.514157004,0.489404609,0.465546683,0.442485648,0.41999382,0.397404414,0.375530583,0.35396575,0.332970125,0.314381434,0.296801054,0.281546293,0.266990844,0.25399665,0.24118135,0.229016572,0.216607849,0.205939274,0.195514645,0.186147116,0.177072322,0.169900307,0.16228919,0.154206443,0.147424743,0.139081787,0.131503196,0.123436712,0.116264698,0.108913789,0.102359772,0.095968385,0.089983574,0.084177658,0.079038527,0.074208395,0.068402478,0.063507294,0.058514531,0.053960871,0.049309633,0.044967393,0.041470832,0.037779115,0.033713347,0.03081852,0.028492901,0.025955862,0.023565191,0.021320887,0.018913952,0.016816016,0.014978289,0.013482086,0.011579307,0.010782416,0.009416318,0.008570639,0.008342956,0.006863016,0.005903495,0.004927711,0.004813869,0.003903137,0.00333393,0.003431508,0.003724243,0.003073721,0.003561613,0.00248825,0.001821464,0.001398624,0.002569565,0.001772675,0.002081673,0.003024931,0.001252257,0.002114199,0.001691359,0.001984095,0.001984095,0.001089626,0.001919042,0.00143115,0.001366098,0.001284783,0.00063426,0.002114199,0.001577518,0.00185399,0.001252257,0.001154678,0.000861943,0.00084568,0.000861943,0.000601734,0.000926995,0.00100831,0.001317309,0.00126852,0.001073363,0.000796891,0.000471629,0.000308998,0.000195157,0.000113842,6.51E-05,0.000113842,0.000227683,0.000357788,0.000471629,0.000552944,0.000617997,0.000666786,0.000715575,0.000699312,0.000569208,0.000325261,9.76E-05,0.000195157,0,0.000731838,0.000390314,0.000471629,0.000357788,0.001398624,0.000683049,0.000699312,4.88E-05,1.63E-05,0.000585471,0.000683049,0.000276472,0.000910732\nSRI-1053144-001.txt,O=C(CCn1nnc2ccccc2c1=O)NCc1nnc2ccccn12,1,0.978583316,0.961811215,0.94637228,0.931277389,0.915408401,0.897002094,0.876402513,0.852878566,0.827892435,0.801702153,0.775468866,0.747945418,0.717325581,0.681330071,0.639227795,0.592351922,0.543798838,0.496363894,0.452842441,0.415126715,0.383904803,0.358733749,0.339321117,0.324467056,0.313130835,0.304534058,0.297640294,0.291641043,0.286295473,0.281345553,0.276718173,0.273153026,0.270185654,0.267876265,0.266315169,0.264938997,0.264233708,0.263506917,0.263089765,0.262289865,0.261674888,0.261889915,0.263055361,0.26600553,0.270344774,0.276417135,0.283930176,0.293206439,0.30351483,0.313633998,0.321736214,0.328320339,0.334151869,0.339652258,0.345543997,0.351857188,0.358695044,0.365747928,0.372203037,0.377767934,0.38204697,0.385207867,0.386601241,0.387224819,0.386687252,0.385280976,0.383268324,0.38036546,0.376563783,0.371815989,0.365287771,0.357000632,0.347552348,0.33711064,0.3264152,0.316403545,0.306989666,0.298792839,0.291370109,0.284390334,0.277784706,0.271093068,0.263597229,0.255176774,0.245874708,0.235785644,0.225202018,0.21428295,0.203996061,0.194233837,0.185305919,0.178012205,0.172262384,0.167054432,0.162156118,0.156002047,0.148076154,0.137944084,0.12601439,0.112330075,0.098344723,0.084445381,0.071212623,0.059910807,0.049654022,0.040756207,0.0335227,0.027420236,0.022397206,0.018638535,0.01532282,0.012660786,0.010514818,0.008996727,0.007431331,0.006020754,0.005113341,0.004502664,0.003638256,0.003096388,0.002614728,0.002206176,0.002012652,0.00167721,0.001526691,0.001470784,0.001083736,0.001191249,0.001122441,0.000907414,0.00064078,0.000782698,0.000679485,0.00055477,0.000920315,0.000731092,0.000473059,0.000369846,0.000507464,0.000645081,0.000335442,0.000266633,0.000455857,0.000425753,0.000365546,0.000374147,0.000344043,0.000279535,0.000215027,0.000189224,0.000172022,0.00016342,0.00016342,0.00016342,0.00015912,0.000167721,0.000176322,0.000180623,0.000180623,0.000184923,0.000189224,0.000189224,0.000197825,0.000193524,0.000206426,0.000197825,0.000154819,0.000258032,0.000176322,0,0.000279535,0.000215027,0.000270934,0.000120415,5.16E-05,0.000305338,0.00023653,0.000137617,0.000356945,0.000498863\nSRI-1053338-001.txt,COc1ccc(cc1)S(=O)(=O)N[C@@H](C(C)C)C(O)=O,0.219271877,0.240294314,0.264705882,0.292801289,0.323794648,0.358471846,0.395310228,0.436176274,0.479350859,0.525177807,0.572674761,0.622431137,0.673513694,0.723957719,0.772780856,0.820179575,0.86379622,0.903286966,0.937080042,0.964782506,0.985019058,0.99680734,1,0.992583206,0.976030492,0.949408621,0.913650831,0.869248301,0.816127353,0.756557232,0.691038941,0.622269048,0.553523714,0.486934654,0.425719085,0.370505717,0.322301466,0.281769421,0.247883021,0.220401587,0.198490117,0.181009077,0.167403434,0.156032654,0.146091202,0.136734253,0.128118983,0.120766042,0.114871901,0.109945381,0.105883335,0.101777084,0.096457621,0.090322802,0.082812684,0.074398798,0.066500648,0.059466973,0.054417659,0.05166706,0.049638493,0.047202248,0.042761995,0.036460175,0.029180911,0.022284766,0.016803214,0.012412079,0.009455185,0.007294,0.005957994,0.005024755,0.004582695,0.003693662,0.003217219,0.002853747,0.002509922,0.001719125,0.001517741,0.001272152,0.001154269,0.000830092,0.000864474,0.000766238,0.000741679,0.000820268,0.000609061,0.000736768,0.000761327,0.000599238,0.000643444,0.000785885,0.000668003,0.000609061,0.000668003,0.000589414,0.000938151,0.000604149,0.00046662,0.000574679,0.000746591,0.000663091,0.000648356,0.000668003,0.000628708,0.000432237,0.000555032,0.000417502,0.000643444,0.000432237,0.000392943,0.000235766,0.000559943,0.000324178,0.000451884,0.000181736,0.000284883,0.000279972,0.000417502,0.000388031,0.000348737,0.000255413,0.000196471,0.000353648,3.44E-05,0.000343825,0.00055012,0.000407678,9.82E-05,0.000108059,0.000284883,0.000245589,0.000481355,0.000181736,0.000348737,0.000334001,0.000176824,0.00019156,0.000181736,0.000225942,0.000132618,0.000304531,0.000338913,0.000167001,9.33E-05,7.86E-05,8.35E-05,0.000112971,0.000171912,0.000196471,0.000181736,0.000181736,0.000167001,0.000142442,0.000122795,9.82E-05,6.39E-05,4.91E-05,3.93E-05,2.95E-05,3.44E-05,2.95E-05,3.93E-05,5.89E-05,0.000117883,0.000176824,0.000171912,6.88E-05,0,2.95E-05,6.88E-05,0.000260325,0.000127706,0.000260325,0.00013753,8.84E-05,0.000157177,0.000225942,0.000171912,0.000230854,0.000152265\nSRI-1052930-001.txt,O=C(CCNC(=O)Cn1cnc2ccccc2c1=O)NCCc1c[nH]c2ccccc12,0.962604162,0.974435614,0.98834254,0.99485481,1,0.994519254,0.981544427,0.966245565,0.949007935,0.925755156,0.896710931,0.864895263,0.825200246,0.780658311,0.727715051,0.668918205,0.608493292,0.550703114,0.497610718,0.449265816,0.406364376,0.367899731,0.333399616,0.303249299,0.277846477,0.257054441,0.241171463,0.229153591,0.220988398,0.216064427,0.214024993,0.2147831,0.217645268,0.222406433,0.2286602,0.235796355,0.243437086,0.251111373,0.258952196,0.266888714,0.275729989,0.285947044,0.297710142,0.310164236,0.322876832,0.334828835,0.344487873,0.35111448,0.354465068,0.35570911,0.35642372,0.357865368,0.360167032,0.363138566,0.365868997,0.367387698,0.366765055,0.362658845,0.354548336,0.343251288,0.329938419,0.316395633,0.303128748,0.29047332,0.278459177,0.266707265,0.255536983,0.246260727,0.240046729,0.23722806,0.236498537,0.235299235,0.230326794,0.22070504,0.207722756,0.193680364,0.180541488,0.169614794,0.161187371,0.155103867,0.150647188,0.147168592,0.14376705,0.139383696,0.133505254,0.126367856,0.118285931,0.110591759,0.103747662,0.098631056,0.095309053,0.093717027,0.0936785,0.094255159,0.094549703,0.09324352,0.089148496,0.081680514,0.071232298,0.059112517,0.046893312,0.035771499,0.026403276,0.01920001,0.01379756,0.009893927,0.00726292,0.00543352,0.00419072,0.003331946,0.00268569,0.002173656,0.001901483,0.001642981,0.001383236,0.00126517,0.001063836,0.000860017,0.000801606,0.000717095,0.000663655,0.000632585,0.000658684,0.000492149,0.000549317,0.000452379,0.000436223,0.000437465,0.000393967,0.000367869,0.000347984,0.000292058,0.000215004,0.000182692,0.000300757,0.00023986,0.000264716,0.000197605,0.000196362,0.000229918,0.000182692,0.000165292,0.000198848,0.000196362,0.000175235,0.00015535,0.000136708,0.00012428,0.000110609,8.95E-05,6.96E-05,5.47E-05,4.97E-05,4.72E-05,4.85E-05,5.34E-05,5.84E-05,6.21E-05,6.59E-05,6.96E-05,7.46E-05,7.71E-05,8.08E-05,8.08E-05,7.71E-05,7.46E-05,7.46E-05,5.84E-05,3.98E-05,9.07E-05,0.000108124,3.73E-05,8.08E-05,1.24E-05,5.34E-05,1.49E-05,5.34E-05,6.71E-05,0,6.09E-05,8.33E-05\nSRI-0000202.txt,CC1=C2C=CN=CC2=C(C)C2=C1N(CCCl)C1=CC=CC=C21,0.22421106,0.226182697,0.228252102,0.229767493,0.230924405,0.231804309,0.233042693,0.234427728,0.23677414,0.240098223,0.244269622,0.249451282,0.255398784,0.262323958,0.269868324,0.278031882,0.286586508,0.295597382,0.304314954,0.312413333,0.318703021,0.322972187,0.324829763,0.324487578,0.322809242,0.321407912,0.321244967,0.323167721,0.327154992,0.332163929,0.337070211,0.339234125,0.337394473,0.330513294,0.318558,0.302674095,0.284152106,0.265516056,0.248326959,0.233873714,0.223156804,0.21652982,0.213515332,0.213401271,0.216031207,0.220565974,0.226868697,0.235306003,0.2452587,0.256976094,0.269633683,0.282811067,0.295595752,0.307073617,0.31703935,0.325142618,0.331554514,0.336525974,0.340715297,0.344212103,0.347444937,0.350526232,0.353605897,0.357027748,0.360767342,0.365215748,0.370938386,0.378267664,0.387990608,0.400706857,0.416735783,0.436556445,0.460103666,0.48661812,0.515720145,0.547026819,0.580155222,0.615432872,0.652460555,0.692391922,0.735758176,0.782533245,0.831429861,0.880417726,0.926123874,0.964233514,0.99017603,1,0.990982609,0.962525847,0.915807809,0.85331504,0.779883755,0.698474669,0.614220559,0.530228791,0.450111862,0.375803931,0.308610191,0.249255747,0.198076268,0.154747492,0.118599714,0.089267936,0.065921138,0.047273681,0.033116996,0.022316984,0.014295188,0.008554627,0.004612981,0.002048222,0.000728365,0,7.66E-05,0.000493724,0.001290527,0.002271457,0.003443034,0.004482624,0.005582505,0.006763858,0.007883292,0.009069534,0.010632179,0.01217527,0.013918785,0.015919753,0.018013599,0.020433337,0.023017649,0.025735576,0.0285806,0.031125805,0.033525989,0.035512292,0.037084714,0.038153635,0.038590328,0.038652247,0.038163411,0.037374756,0.036385678,0.035373788,0.034477589,0.033928464,0.03376063,0.033739447,0.033757371,0.033711747,0.03343474,0.033022488,0.032551576,0.032008969,0.031370223,0.030632081,0.029818984,0.028883678,0.027800092,0.026600815,0.025206004,0.023631952,0.021746676,0.019597427,0.01738789,0.015738883,0.015004,0.014902974,0.015096879,0.015531943,0.016097363,0.016864835,0.017518246,0.018443775,0.019375822,0.020325793,0.021445227,0.022421269,0.023486931,0.024647101,0.025681804\nSRI-0000216.txt,N=C(NCCCCCCNC(=N)NC#N)NC#N,1,0.987065543,0.96653686,0.936853494,0.898258183,0.852276707,0.799047774,0.740513286,0.678268378,0.613145292,0.547432701,0.483141859,0.421417103,0.363021323,0.309237561,0.260204524,0.217101225,0.179372835,0.146811292,0.119208536,0.096287152,0.077357071,0.062019509,0.049615607,0.039836741,0.031985907,0.025865447,0.021059238,0.017293335,0.014429029,0.012286001,0.010524418,0.009282987,0.008225344,0.007327214,0.006768917,0.006293845,0.005707806,0.005260475,0.004955319,0.00472992,0.004449037,0.004057189,0.003807516,0.003585584,0.003287363,0.003141721,0.002881645,0.002614633,0.002434313,0.002267865,0.002007788,0.00185521,0.00175118,0.001577796,0.001536184,0.001411347,0.001387073,0.001341993,0.001255301,0.001234495,0.001102723,0.001199818,0.001109659,0.001126997,0.001147803,0.001199818,0.001151271,0.001113126,0.001109659,0.001081917,0.001154738,0.001022966,0.001113126,0.001231027,0.001029902,0.000873856,0.000960548,0.001054176,0.000915468,0.000821841,0.000880791,0.000755955,0.000676198,0.000617248,0.000631118,0.000527088,0.00046467,0.00037451,0.000457734,0.000339833,0.000208061,0.000225399,0.000211529,0.000187255,9.36E-05,9.71E-05,0.000260076,0.000256609,0.000162981,0.000214996,0.000225399,0.00014911,0,0.000225399,0.00023927,0.00018032,7.98E-05,6.24E-05,0.000371042,0.000246205,0.000117901,0.000353704,0.000204593,0.000322495,0.000475073,0.000405719,0.000235802,0.000391848,0.000353704,9.36E-05,0.000225399,0.000114434,0.000100563,0.000454266,0.000572168,0.000450799,0.000214996,2.43E-05,0.000357171,0.000273947,0.000263544,0.000540959,0.000440396,0.000142175,0.000267012,0.000214996,0.000350236,0.000235802,0.00037451,0.000228867,0.000204593,0.000190723,0.000315559,0.000232335,0.000197658,0.000221932,0.000214996,0.00019419,0.000169916,0.000138707,0.000117901,0.000107498,0.000100563,0.000100563,0.000110966,0.000121369,0.00013524,0.00014911,0.000166449,0.000183787,0.000208061,0.000232335,0.000246205,0.000242738,0.000225399,0.000190723,0.000117901,0.000256609,0.000214996,0.000218464,0.000457734,0.000308624,0.000214996,0.000235802,0.000280882,0.000218464,0.000176852,0.00013524,0.000426525,0.000339833\nSRI-0000217.txt,[O-][N+](=O)C1=CC=C2C3=CC=CC=C3N=C(C3=CC(=CC=C3)C3=CC=CC=C3)C2=C1,0.913324519,0.914793595,0.919494638,0.926546202,0.935066843,0.943293668,0.951520494,0.96092258,0.970324666,0.977963861,0.984427795,0.990304099,0.995005142,0.998237109,1,1,0.99941237,0.997355663,0.994123696,0.990215954,0.985544293,0.980255619,0.973527251,0.966181872,0.957925665,0.948876157,0.938857059,0.928338475,0.917702365,0.906919348,0.895989423,0.884501249,0.873336271,0.862259439,0.851153225,0.840752167,0.830627295,0.821686499,0.813635963,0.806537388,0.800208609,0.795431174,0.792131629,0.789698839,0.788594094,0.788817394,0.789954459,0.791805494,0.79451447,0.797273395,0.800631703,0.803646247,0.806766564,0.809878067,0.812601734,0.815387102,0.81783752,0.819970618,0.821151756,0.82227413,0.822470986,0.82224181,0.821151756,0.819388864,0.817085353,0.814114882,0.810888791,0.80669311,0.803064492,0.798548553,0.793459674,0.787809608,0.781577788,0.77449978,0.766211253,0.756412517,0.7451829,0.732560599,0.718771853,0.703428823,0.687236668,0.66995152,0.651817247,0.632751579,0.613615396,0.59443514,0.575351844,0.55690025,0.538907007,0.521433818,0.504756868,0.488679301,0.473571324,0.459033348,0.445432643,0.432390187,0.419858969,0.408273836,0.396844425,0.386319965,0.37578669,0.36588218,0.356212722,0.346684296,0.337214632,0.328065227,0.319280153,0.31039812,0.301765829,0.292983693,0.284272073,0.275625092,0.267492287,0.258786543,0.250236521,0.241815778,0.233218745,0.224527692,0.21624798,0.20769502,0.199403555,0.191264874,0.183372998,0.175713236,0.168494197,0.161436756,0.154640811,0.148241516,0.141980314,0.136627002,0.13144704,0.126387542,0.121516086,0.116723961,0.112240341,0.107794917,0.103637432,0.099667989,0.095798443,0.092437197,0.08906126,0.08575584,0.082823564,0.079973557,0.077232261,0.074708388,0.072969002,0.071949464,0.070371676,0.067098575,0.063173204,0.059526958,0.056615249,0.054485089,0.052795652,0.051250184,0.049648891,0.047912443,0.045958572,0.043766711,0.041269282,0.038442779,0.035137359,0.03128838,0.02723373,0.023693257,0.021063611,0.018716028,0.016641692,0.014843543,0.013118848,0.01133539,0.009569561,0.008088732,0.006543264,0.005385632,0.004160423,0.0029881,0.00181284,0.00100191,0\nSRI-0000565.txt,CCOC(=O)NC1=NC2=CC(Cl)=CN=C2N1,1,0.916363636,0.843636364,0.778181818,0.694545455,0.610909091,0.556363636,0.476363636,0.432727273,0.396363636,0.381818182,0.370909091,0.341818182,0.36,0.345454545,0.334545455,0.341818182,0.341818182,0.338181818,0.349090909,0.349090909,0.367272727,0.378181818,0.381818182,0.414545455,0.432727273,0.449454545,0.451636364,0.460363636,0.493454545,0.501454545,0.499272727,0.513818182,0.52,0.521454545,0.516727273,0.526545455,0.525454545,0.513454545,0.526909091,0.508727273,0.494181818,0.459636364,0.452363636,0.428727273,0.410545455,0.382909091,0.352363636,0.337818182,0.318181818,0.302181818,0.265818182,0.240727273,0.235636364,0.230909091,0.218545455,0.213090909,0.212727273,0.229818182,0.219272727,0.224363636,0.239272727,0.243272727,0.246909091,0.257090909,0.264727273,0.281454545,0.283272727,0.289454545,0.304727273,0.325818182,0.329454545,0.316,0.344727273,0.355272727,0.368,0.370909091,0.368,0.404363636,0.396727273,0.392,0.423272727,0.426545455,0.432727273,0.434909091,0.433818182,0.438545455,0.428363636,0.425090909,0.405454545,0.407272727,0.396363636,0.382545455,0.354181818,0.331272727,0.325454545,0.318181818,0.288727273,0.259272727,0.252363636,0.231636364,0.213454545,0.191636364,0.175272727,0.168,0.166181818,0.156727273,0.134909091,0.147272727,0.161454545,0.152727273,0.155272727,0.166181818,0.161454545,0.164363636,0.189090909,0.177818182,0.164363636,0.192363636,0.195636364,0.182181818,0.176,0.191636364,0.197818182,0.196363636,0.191272727,0.189818182,0.200727273,0.213818182,0.204,0.196363636,0.197454545,0.199636364,0.190181818,0.196727273,0.182909091,0.173454545,0.182181818,0.187272727,0.190181818,0.173090909,0.181818182,0.188727273,0.170545455,0.159636364,0.157454545,0.156727273,0.157818182,0.154909091,0.146181818,0.133818182,0.123272727,0.113454545,0.106909091,0.101454545,0.096727273,0.092,0.086909091,0.081090909,0.074909091,0.067272727,0.058909091,0.048727273,0.036363636,0.020727273,0.004363636,0.002181818,0.010545455,0,0,0.006909091,0,0.012,0.002181818,0.001454545,0.001454545,0.006909091,0.008363636,0.010545455,0.006545455,0.010181818\nSRI-0000203.txt,CCOC(CNCC1=C(C)C2=C(NC3=CC=CC=C23)C(C)=C1)OCC,0.412359737,0.424715139,0.439045479,0.455952871,0.475340978,0.496896699,0.520884965,0.546775914,0.574762225,0.604169527,0.635070074,0.666091045,0.69708793,0.727362278,0.757371695,0.78752562,0.819558144,0.854288143,0.891233927,0.928565063,0.961946325,0.986705298,1,0.999349716,0.985236138,0.961175618,0.9324186,0.903757921,0.879957515,0.862093964,0.84925687,0.838847504,0.825641915,0.80224613,0.763869722,0.710040631,0.64816969,0.592883481,0.555205526,0.540930581,0.547746524,0.565448708,0.579237144,0.573430346,0.540094845,0.483686293,0.416051907,0.350751319,0.296298437,0.254624846,0.225284981,0.204475883,0.188938905,0.176689475,0.166855731,0.159389503,0.154218539,0.151492162,0.151154977,0.153062478,0.156282589,0.159069178,0.160189112,0.159182376,0.15626573,0.152889069,0.150873187,0.151785994,0.156419872,0.164639947,0.17403776,0.180347926,0.179488106,0.168724696,0.149326956,0.125131562,0.100847056,0.08003314,0.064031329,0.052701931,0.045435606,0.040849898,0.038381226,0.037225165,0.037078248,0.037846547,0.038872551,0.040332079,0.042020409,0.043660571,0.045192352,0.046377314,0.047567094,0.048626816,0.049756384,0.050996741,0.052600776,0.05470577,0.057133499,0.059929721,0.062882494,0.065722068,0.067937852,0.06922397,0.069565971,0.068918095,0.067458568,0.065608871,0.06363875,0.061885391,0.060864204,0.060844936,0.061837222,0.063474975,0.065478814,0.067352596,0.068539967,0.067952303,0.065396926,0.060746189,0.054436023,0.046830105,0.038877368,0.031172703,0.02420021,0.018123665,0.013224856,0.009648293,0.006714788,0.004660371,0.003340535,0.002198924,0.001649795,0.001158469,0.000816468,0.000537087,0.000284198,0.000207128,0.000173409,0.000144508,8.91E-05,0,4.34E-05,0.000168592,0.000245663,0.000296241,0.000322734,0.000329959,0.000339593,0.000392579,0.000467241,0.000541904,0.000614157,0.000679186,0.000729764,0.000773116,0.000818877,0.000869454,0.000924849,0.00098506,0.001052497,0.001129568,0.001221089,0.001317428,0.001440259,0.001572725,0.001654612,0.001659429,0.001661838,0.001801528,0.001784669,0.001885825,0.001844881,0.001967712,0.001933994,0.00189305,0.001946036,0.001982163,0.002039966,0.002039966,0.001958078\nSRI-1053360-001.txt,CCC(NS(=O)(=O)c1ccc(OC)cc1)C(O)=O,0.51121064,0.538709721,0.567093674,0.59745157,0.627537199,0.659732905,0.692677349,0.726234396,0.758906571,0.791987149,0.824387056,0.855697891,0.88530705,0.913146467,0.938059001,0.959227848,0.976312673,0.988428604,0.996596648,1,0.99884286,0.994010101,0.98441265,0.969097567,0.94976653,0.92422778,0.895421811,0.861367875,0.823012102,0.782253563,0.739228392,0.693943395,0.649495623,0.60490491,0.561559824,0.519562465,0.479103421,0.441142437,0.405420858,0.372544482,0.342567761,0.314932546,0.289761357,0.267115455,0.246736186,0.228657582,0.212328301,0.198218005,0.186245014,0.175912439,0.167349606,0.16009366,0.153525192,0.148011762,0.143519338,0.140469935,0.138455151,0.136773895,0.13583457,0.135038186,0.133636005,0.131260465,0.12788434,0.122833767,0.117708319,0.113508583,0.109744476,0.106912888,0.103747771,0.099997277,0.093571749,0.08496127,0.074601468,0.063737969,0.052527329,0.042562315,0.034264944,0.027247233,0.021815484,0.018030957,0.01544441,0.013450046,0.012211226,0.011101733,0.010196441,0.009168629,0.008447119,0.008099977,0.007555441,0.007269559,0.00681351,0.006616116,0.006391494,0.006289394,0.006439141,0.006248554,0.005601917,0.005145868,0.004859986,0.004648978,0.004063602,0.003028983,0.002341506,0.001953524,0.001926297,0.001640415,0.001313694,0.001150333,0.001055039,0.00130008,0.000694284,0.000462856,0.000687477,0.000333528,0.000456049,0.000721511,0.000714704,0.000714704,0.00070109,0.000707897,0.000456049,0,0.000503696,0.000517309,0.000367562,0.000313108,0.000612603,0.000571763,0.000245041,0.000374369,0.000530923,0.000748737,0.000319915,0.000394789,0.000408402,0.000313108,0.000292688,0.000530923,0.000353949,0.000415209,0.000292688,0.000510503,0.000176974,0.00055815,0.000251848,0.000292688,0.000374369,0.000387982,0.000353949,0.000306302,0.000231428,0.000197394,0.000163361,0.000122521,9.53E-05,6.81E-05,4.08E-05,2.72E-05,1.36E-05,1.36E-05,1.36E-05,2.04E-05,2.04E-05,2.04E-05,3.4E-05,0.000142941,0.000149747,0.000258655,0.000272268,0.000122521,0.000136134,7.49E-05,0.000217815,0.000231428,0.000353949,8.85E-05,0.000299495,0.000115714,0.000279075,0.000224621,4.08E-05\nSRI-0000003.txt,NC1=NC2=C(C=CC=C2)N=N1,0.411921536,0.447550414,0.487158254,0.530421891,0.576957569,0.626522912,0.678087836,0.731086802,0.783621219,0.834095463,0.881014898,0.92223856,0.956009243,0.981155474,0.996243214,1,0.993132756,0.975096141,0.947485781,0.911109585,0.868815441,0.823616856,0.777131673,0.73155539,0.689144099,0.650758225,0.61700168,0.587512927,0.562257627,0.539918886,0.519331292,0.499767726,0.479874935,0.459321678,0.437649464,0.41469873,0.390584604,0.365664588,0.339706405,0.312978687,0.285725827,0.257895311,0.229992082,0.202912923,0.177283965,0.153668724,0.132426722,0.113772056,0.097504767,0.083313809,0.070940651,0.060488301,0.05159926,0.044265447,0.038551496,0.034299864,0.031260099,0.029416042,0.028567735,0.028638427,0.029189827,0.030502682,0.032082148,0.034029214,0.036442848,0.03915541,0.04206389,0.045398543,0.048755413,0.052431408,0.056271006,0.060262086,0.064509679,0.068747172,0.073031121,0.077189843,0.081386941,0.085600197,0.089655911,0.093721723,0.097537083,0.101249434,0.10455783,0.107436013,0.109890043,0.111855287,0.113305487,0.114216407,0.114541591,0.114307297,0.113559979,0.112348113,0.110758548,0.108706454,0.106082762,0.103158124,0.099805293,0.095785936,0.091093992,0.085895085,0.080102362,0.073661291,0.066751632,0.059516788,0.05205573,0.044532058,0.037394164,0.03061579,0.024217134,0.018680924,0.013968782,0.009965583,0.006742018,0.004306166,0.002387377,0.001284579,0.000476668,8.08E-05,0,0.000165622,0.0005413,0.001333053,0.002110668,0.002914539,0.004144584,0.005279699,0.006679405,0.008196258,0.00963232,0.010931037,0.01235094,0.013920308,0.015544209,0.017204466,0.01898591,0.020852185,0.022841666,0.024760454,0.026822647,0.029054502,0.031106596,0.033332391,0.035669274,0.03797586,0.040328901,0.0425143,0.044105885,0.045119813,0.046671002,0.049817816,0.053522088,0.056917335,0.059543046,0.061437597,0.062813066,0.064057249,0.065349906,0.06677385,0.068341197,0.070175155,0.072192913,0.074556053,0.077381722,0.08058105,0.083943979,0.086775708,0.088787406,0.090324457,0.091619135,0.092669419,0.093697486,0.094414507,0.095030539,0.095444593,0.095832391,0.095949538,0.095919241,0.095820272,0.095594057,0.09520424,0.094772007\nSRI-1052980-001.txt,COC(=O)[C@H](C)NC(=O)N1CCN(CC1)C(=O)CCCc1c[nH]c2ccccc12,0.990940796,0.998681524,1,0.993109901,0.975416808,0.945219462,0.900306227,0.839528751,0.763525009,0.674719292,0.579831575,0.487027901,0.40068901,0.325153113,0.262334127,0.212444709,0.17348588,0.143543722,0.121384825,0.104414767,0.091570262,0.081830555,0.074259952,0.068348078,0.063754678,0.060267098,0.05831065,0.057332426,0.057060225,0.057247363,0.058042702,0.059259102,0.060845526,0.062925315,0.065345356,0.06806737,0.071274243,0.074544913,0.078211126,0.082166553,0.086151752,0.090260293,0.094696325,0.099089826,0.10366196,0.108323409,0.113006125,0.117922763,0.122460871,0.127096802,0.131571113,0.135811501,0.1397967,0.143441647,0.146780367,0.149259952,0.151054781,0.152568901,0.154019224,0.155831065,0.157906601,0.159939605,0.161360157,0.161568561,0.160688159,0.158072474,0.153904389,0.149128105,0.144985539,0.142012589,0.140600544,0.139413916,0.13613474,0.129614665,0.119538959,0.107953386,0.095759612,0.084459,0.074646989,0.065842974,0.057983158,0.051220653,0.045181184,0.040102926,0.035496768,0.031460531,0.028083532,0.025480606,0.02293297,0.021014801,0.019300783,0.018118408,0.016910514,0.016004593,0.01524328,0.014664852,0.01425655,0.013873767,0.013482477,0.01281048,0.01233838,0.011866281,0.011521776,0.011032664,0.010437224,0.009858796,0.00914852,0.008446751,0.007647159,0.00701344,0.006426506,0.006077748,0.005414257,0.004495577,0.003644947,0.003262164,0.002909153,0.002415788,0.001913916,0.00167574,0.001412045,0.001182375,0.000816604,0.000518884,0.000663491,0.00067625,0.000833617,0.000629466,0.000484859,0.000544403,0.000535897,0.00052739,0.000272201,0.000370024,0.000765567,0.000633719,0.000637972,0.000395543,0.000370024,0.000467846,0.000416808,0.000425315,0.000204151,0.00045934,0.000429568,0.000455087,0.000421062,0.000374277,0.000314733,0.000250936,0.000195645,0.000170126,0.000157366,0.00016162,0.000182885,0.000204151,0.000221164,0.000238176,0.000246683,0.000250936,0.000250936,0.000246683,0.000225417,0.000195645,0.000165873,0.000165873,0.000136101,0,5.1E-05,0.000340252,0.000357264,0.000267948,0.000289214,5.95E-05,0.000174379,0.000259442,0.000250936,0.000187138,0.000357264,0.000119088,0.000267948\nSRI-1053148-001.txt,O=C(NCCc1c[nH]c2ccccc12)c1ccc2[nH]c(=O)c(=O)[nH]c2c1,0.991408012,1,0.998926002,0.981742026,0.947374074,0.901192138,0.842122221,0.766942326,0.685318441,0.598324562,0.508108689,0.432928794,0.416818816,0.401782838,0.398560842,0.394264848,0.397486844,0.403930834,0.413596821,0.423262807,0.431854795,0.45011277,0.463000752,0.478036731,0.490817313,0.498442702,0.514874879,0.525077865,0.534314252,0.545483836,0.555149823,0.556653421,0.562345613,0.562667812,0.563741811,0.56417141,0.563527011,0.55697562,0.546772635,0.53538825,0.523037268,0.513800881,0.500912899,0.486091719,0.472022339,0.450864569,0.4286328,0.410267426,0.388143057,0.368381484,0.344431318,0.324777145,0.302115777,0.283750403,0.266996026,0.247771453,0.231876275,0.212866502,0.204059714,0.191493932,0.177854151,0.179572549,0.179357749,0.17839115,0.181505746,0.180539147,0.182042745,0.18537214,0.190527333,0.191493932,0.198152723,0.193427129,0.196863924,0.198152723,0.194715927,0.197078724,0.193427129,0.187627537,0.176887552,0.174846955,0.167221566,0.157662979,0.145311997,0.131994415,0.124798625,0.112769842,0.102996456,0.103426055,0.097626463,0.096874664,0.095048867,0.100741059,0.096767265,0.101278058,0.107614649,0.105144453,0.104392654,0.102029857,0.104177854,0.101170658,0.100526259,0.094619268,0.091719472,0.094297068,0.097089464,0.097841263,0.098807862,0.096445065,0.094941467,0.094297068,0.090108474,0.087101278,0.077864891,0.07829449,0.0716357,0.067554505,0.058318118,0.055955322,0.052733326,0.047792933,0.047792933,0.050800129,0.045107937,0.047578133,0.041563742,0.039523145,0.036838148,0.037589947,0.035334551,0.030286758,0.027816561,0.023305767,0.02824616,0.017720975,0.017076576,0.016217377,0.014821179,0.013639781,0.010525185,0.011813983,0.007732789,0.002792396,0.006229191,0.003973794,0.004725593,0.006766191,0.006658791,0.005477392,0.004725593,0.003973794,0.003007196,0.002255397,0.001181398,0.000429599,0,0.0003222,0.000751799,0.001288798,0.001396198,0.001718398,0.001825797,0.002040597,0.002040597,0.001933197,0.001825797,0.002577596,0.004295994,0.006766191,0.008269788,0.006766191,0.004081194,0.006336591,0.004832993,0.001503598,0.002040597,0.003007196,0.00698099,0.009773386,0.008806788,0.005262593,0.004832993\nSRI-1053297-001.txt,CC(C)[C@H](NC(=O)NCCc1c[nH]c2ccccc12)C(O)=O,0.979744406,0.994688859,1,0.993077202,0.971979151,0.934654648,0.877917007,0.8024988,0.711257056,0.610308742,0.508517972,0.414272685,0.330796195,0.261055415,0.205819546,0.16347693,0.132122881,0.109376545,0.093150093,0.081575468,0.073443927,0.067803129,0.063810616,0.060990217,0.059305303,0.058572732,0.058389589,0.058645989,0.05942984,0.060660559,0.062400416,0.064436964,0.066858112,0.06963822,0.072682053,0.076117812,0.07992352,0.083828124,0.087981803,0.092571362,0.097439297,0.102647879,0.107812506,0.113035738,0.118387171,0.123544473,0.128903231,0.134023904,0.138880851,0.143781752,0.148312705,0.152455396,0.156312383,0.159872679,0.162945815,0.164927421,0.166520763,0.167817414,0.169322848,0.171341081,0.173560772,0.175560692,0.176787748,0.176527686,0.174872075,0.17099311,0.165454872,0.159385519,0.154506595,0.151393167,0.150012271,0.147737637,0.142126141,0.131895784,0.118515371,0.103915227,0.089725322,0.076557355,0.065444249,0.055506921,0.047140958,0.039437971,0.03294739,0.027614272,0.022684068,0.018599983,0.015079978,0.012266905,0.009860409,0.007904443,0.006274472,0.005226896,0.004139027,0.003384479,0.002780108,0.002259982,0.001853405,0.001662937,0.001168451,0.001150137,0.000893737,0.000981645,0.000805828,0.000827805,0.000710594,0.000659314,0.000758211,0.000659314,0.000553091,0.000479834,0.000531114,0.000655651,0.000684954,0.000432217,0.000509137,0.000468846,0.000241749,0.000219771,0.000439543,0.000311343,0.000318668,0.000296691,0.000377274,0.000432217,0.000714257,0.000509137,0.000362623,0.000465183,0.000421228,0.000428554,0.000351634,0.00056408,0.000465183,0.000399251,0.000446868,0.000483497,0.000531114,0.000395588,0.000366286,0.000355297,0.000245411,0.000271051,0.000183143,0.000271051,0.000234423,0.000289366,0.000296691,0.000252737,0.000197794,0.000117211,4.76E-05,2.56E-05,7.33E-06,0,1.47E-05,4.03E-05,6.59E-05,9.52E-05,0.000124537,0.000142851,0.000164829,0.000183143,0.000190469,0.00017948,0.000172154,0.000212446,0.00035896,0.00035896,0.000267388,0.00017948,0.000175817,0.00020512,0.00017948,0.00017948,0.000241749,0.000197794,0.000161166,0.000208783,0.000197794,0.000197794,0.000300354\nSRI-1053115-001.txt,O=C(Cn1nnc2ccccc2c1=O)Nc1nnc(s1)C1CCCO1,0.942764347,0.958697184,0.973588259,0.986211968,0.99577167,1,0.999142078,0.992891504,0.981677237,0.967766645,0.951282287,0.933082085,0.911082514,0.884057971,0.851395655,0.813095566,0.771915311,0.73287986,0.697153537,0.666084505,0.642614211,0.625639611,0.613935104,0.606091246,0.602046757,0.600085792,0.598737629,0.597695867,0.596078071,0.59475442,0.592560591,0.590097129,0.587345651,0.583962987,0.579544689,0.574501333,0.568005638,0.560688789,0.551993137,0.542629531,0.533192389,0.52340595,0.514465178,0.505548917,0.497171921,0.489475136,0.481968318,0.474847566,0.467279468,0.460060667,0.452909275,0.445659834,0.438251065,0.431436713,0.424653001,0.418102154,0.411998652,0.405870638,0.400055152,0.393896498,0.387492723,0.380770291,0.372993841,0.364708766,0.356429819,0.347452278,0.338376689,0.329687165,0.321628826,0.312902534,0.304096578,0.295952447,0.287011674,0.278224101,0.269859362,0.26199712,0.255464657,0.249060882,0.243784662,0.239556332,0.235168674,0.230572663,0.22502681,0.218016362,0.209590342,0.200177712,0.190513834,0.180997028,0.172099151,0.165235775,0.159738947,0.156515611,0.154775255,0.153960229,0.152176977,0.148353096,0.141501976,0.131200784,0.118203266,0.103931121,0.088929742,0.074878206,0.062205472,0.051248583,0.041878849,0.034304624,0.027992769,0.023071974,0.018904924,0.015816405,0.01311395,0.011036554,0.009069461,0.007580354,0.006624383,0.005502957,0.004669547,0.003897417,0.003480712,0.003064007,0.002641174,0.002371542,0.002028373,0.001415571,0.001427827,0.001286883,0.001176579,0.000998866,0.00089469,0.001066274,0.000637313,0.000551521,0.00064957,0.000667954,0.000667954,0.000582161,0.000704722,0.000367681,0.000269633,0.000539265,0.000208352,0.000404449,0.000294145,0.000361553,0.000306401,0.000300273,0.000300273,0.000257377,0.000251249,0.000177712,9.8E-05,4.9E-05,1.23E-05,6.13E-06,0,0,6.13E-06,3.06E-05,4.29E-05,5.52E-05,6.74E-05,8.58E-05,0.000104176,0.00012256,0.0001532,0.000134816,0.000189968,0.000379937,0.000355425,0.000177712,0.000104176,0.000288017,0.00018384,0.000324785,0.000490241,0.000367681,0.000226737,0.000189968,0.000220609,0.000245121,0.000110304\nSRI-1052974-001.txt,CC(C)[C@H](NC(=O)Cc1csc(n1)-c1ccc(OC(F)(F)F)cc1)C(O)=O,1,0.987009613,0.974019226,0.935048064,0.896076903,0.857105742,0.805144193,0.740192258,0.701221096,0.675240322,0.623278774,0.597297999,0.571317225,0.553130683,0.53624318,0.529747986,0.52585087,0.52585087,0.524551832,0.516757599,0.510262406,0.502468174,0.492075864,0.484281632,0.468693167,0.459599896,0.441413354,0.419329696,0.403741231,0.379059496,0.360872954,0.337490257,0.321641985,0.300467654,0.278124188,0.266822551,0.249935048,0.235126007,0.234606391,0.244868797,0.249285529,0.252533125,0.258118992,0.262665627,0.264484282,0.266302936,0.269030917,0.271499091,0.275656015,0.281761496,0.286048324,0.290205248,0.293452845,0.29799948,0.306962847,0.316186022,0.320213042,0.331514679,0.340867758,0.353078722,0.365289686,0.369186802,0.378280073,0.383865939,0.395817095,0.41140556,0.427773448,0.446479605,0.463886724,0.490776825,0.503507405,0.510002598,0.538191738,0.55806703,0.568199532,0.586386074,0.598726942,0.611457521,0.626786178,0.644453105,0.652637049,0.663548974,0.675630034,0.683164458,0.68589244,0.68589244,0.69329696,0.690958691,0.685502728,0.684853209,0.685113016,0.677968303,0.675240322,0.666406859,0.661210704,0.644712912,0.632501949,0.619771369,0.606521174,0.58625617,0.568329436,0.54195895,0.520394908,0.502468174,0.477007015,0.450246817,0.427253832,0.40906729,0.385684593,0.35840478,0.339438815,0.307222655,0.291374383,0.267731878,0.240711873,0.220966485,0.189659652,0.167056378,0.15133801,0.134840218,0.10872954,0.090802806,0.083917901,0.064042608,0.054299818,0.050142894,0.037022603,0.033255391,0.019615485,0.025980774,0.02416212,0.012860483,0.008443752,0.005326059,0.01441933,0.015718368,0.012730579,0.002987789,0.009872694,0.009353079,0.005455963,0.007924136,0.003767212,0.008573655,0.005585866,0.005326059,0.004156924,0.002857885,0.001558846,0.001428943,0.002208366,0.002857885,0.003117693,0.002857885,0.002727981,0.003117693,0.003767212,0.00402702,0.004156924,0.004286828,0.004156924,0.00402702,0.003507405,0.00233827,0.000649519,0.000519615,0,0.000519615,0.00571577,0.006625097,0.004156924,0,0.007014809,0.006235386,0.006625097,0.004936347,0.007144713,0.00805404,0.002857885,0.004416732,0.011821252\nSRI-0000002.txt,NC1=NC2=C(C=CC=C2)[N+]([O-])=N1,0.299539171,0.311787266,0.328491063,0.349915057,0.376547543,0.408693706,0.446353547,0.489791559,0.537420779,0.58974985,0.644581439,0.701020336,0.757113356,0.811843216,0.863561917,0.909665212,0.948789941,0.979918821,0.998555457,1,0.980407117,0.938330231,0.87847733,0.810972421,0.745827611,0.689400922,0.644943592,0.613112786,0.592848496,0.583243304,0.582114119,0.587699006,0.598439487,0.612762841,0.628823715,0.64521012,0.660202846,0.67276223,0.681628875,0.686054058,0.684865871,0.677803888,0.664151941,0.643602812,0.616087324,0.582657348,0.54385815,0.502157659,0.4595762,0.417991679,0.380272835,0.347272154,0.319304992,0.296383557,0.277995137,0.263049206,0.250709555,0.240498062,0.231141087,0.222953988,0.215017141,0.207251198,0.199715161,0.192238126,0.184781437,0.177404096,0.169933164,0.162588377,0.154993337,0.147091077,0.138893806,0.130381176,0.121947895,0.113595996,0.105612354,0.098342845,0.091588082,0.085667491,0.08047324,0.076043987,0.072487564,0.069460128,0.066746015,0.064394055,0.062141789,0.059883419,0.057494837,0.055138808,0.052713604,0.050398267,0.048292489,0.046498001,0.044894762,0.043472599,0.042042299,0.040778832,0.039596749,0.038317006,0.036978261,0.035639515,0.034227526,0.032650736,0.031132949,0.029450362,0.027635528,0.025708792,0.023944823,0.022003845,0.019940794,0.017981506,0.015906247,0.013944924,0.012101606,0.010305083,0.008445489,0.006998912,0.005580818,0.004242073,0.003003021,0.002077293,0.001328572,0.000769066,0.000319427,1.63E-05,0,9.97E-05,0.000410983,0.000954212,0.001475061,0.002052878,0.002590004,0.003344829,0.004272591,0.005361085,0.006484166,0.007715079,0.008990753,0.010351878,0.011967325,0.013597013,0.015240944,0.017055778,0.018939787,0.020866522,0.022858364,0.024785099,0.026193019,0.027102471,0.028565325,0.031657867,0.035342469,0.038734092,0.041440067,0.043411562,0.044943592,0.046323028,0.047791986,0.049456262,0.051323995,0.053494878,0.055993327,0.058900723,0.062420525,0.066595457,0.071205786,0.075415306,0.078778446,0.081669566,0.084465061,0.087164932,0.089799697,0.092434462,0.095006155,0.097484258,0.099952188,0.102239041,0.104428236,0.106597084,0.108721173,0.110757775,0.112611265\nSRI-002865.txt,CC1=NC(=CC2=CC=C(C=C2)C#N)C(=O)O1,0.310478939,0.315738794,0.317875701,0.318028957,0.317154242,0.314804801,0.311477993,0.307409485,0.303174709,0.298788122,0.294692144,0.291071836,0.288319015,0.286427896,0.285467878,0.285703545,0.287014895,0.28945253,0.292915244,0.296043976,0.299662837,0.305240771,0.311476548,0.318454025,0.326287421,0.335057702,0.344871858,0.355737117,0.367678059,0.38082336,0.395081934,0.410436432,0.426714802,0.439502988,0.452558649,0.470488134,0.488835458,0.507453149,0.526163371,0.54495745,0.563702371,0.582364882,0.60095221,0.619619058,0.638369763,0.657424088,0.676779141,0.691689776,0.706785474,0.727424406,0.748410332,0.76961313,0.791109428,0.812372949,0.833308273,0.853551053,0.873141773,0.891629341,0.909045563,0.925056459,0.936381486,0.946690108,0.959134191,0.969833182,0.979108051,0.986717347,0.99258878,0.996801869,0.999226492,1,0.999136852,0.996493912,0.991993106,0.989046546,0.981933163,0.972882395,0.961717853,0.948698338,0.933559265,0.916349793,0.897283902,0.87638617,0.853739008,0.829784835,0.804473046,0.79154317,0.764885333,0.73745977,0.709214434,0.680264988,0.65072276,0.620690403,0.590112976,0.559376509,0.528501245,0.497721404,0.474777851,0.452276716,0.422702681,0.393848658,0.365799952,0.338727167,0.312530543,0.287361889,0.263263134,0.240206809,0.21820737,0.202297681,0.187242465,0.168867671,0.151880854,0.135518626,0.119848942,0.104942645,0.091472037,0.079680013,0.069170423,0.059872422,0.05350363,0.047792682,0.041008944,0.035050762,0.029760545,0.025359501,0.021525213,0.018140573,0.015422451,0.012977587,0.010969358,0.009588609,0.008582326,0.007103263,0.006083967,0.005212144,0.004398153,0.003761997,0.003169215,0.00276728,0.002347995,0.00201835,0.001862203,0.001646777,0.001367736,0.001269421,0.001097369,0.000892065,0.000879052,0.000738809,0.000650614,0.000673747,0.000497359,0.000633265,0.000549408,0.000540733,0.000549408,0.000469888,0.000462659,0.000503142,0.000422176,0.000391814,0.000569649,0.000404827,0.000553745,0.0002588,0.000471334,0.000293499,0.000399043,0.000357115,0.000254462,0.000362898,0.000200968,0.00024145,0.000240004,0.00041061,6.36E-05,0.000336874,0.000154702,0.00021398,0.000310849,0,0.000328199\nSRI-0000016.txt,NNC(=O)CCCCCCCCC=C,1,0.919408015,0.83881603,0.772877134,0.699611693,0.640999341,0.582386988,0.523774636,0.472488827,0.418272401,0.372115173,0.3266906,0.285661953,0.251959851,0.220455711,0.188218917,0.164041322,0.140596381,0.123745329,0.109092241,0.098102425,0.087112609,0.076855447,0.068063594,0.062202359,0.054875815,0.048281925,0.040222727,0.034361492,0.029965565,0.026375559,0.023005348,0.019708404,0.017363909,0.018096564,0.01670452,0.013700637,0.014653088,0.010550223,0.010623489,0.013554107,0.011942267,0.01157594,0.01414023,0.012748187,0.01414023,0.012967983,0.012088798,0.013261045,0.010916551,0.011209612,0.008645322,0.008059198,0.008425526,0.005421643,0.004249396,0.003663272,0.00337021,0.002857352,0.004102865,0.003516741,0.000732654,0.002491025,0.00578797,0.001831636,0.00337021,0.001318778,0.005128581,0.003883068,0.005494908,0.007106748,0.009524507,0.010843285,0.011722471,0.006960217,0.009304711,0.008865118,0.01077002,0.010916551,0.008791853,0.012088798,0.013773903,0.010403693,0.0099641,0.007180013,0.01077002,0.009671038,0.007839402,0.008718587,0.006154297,0.006447359,0.004102865,0.00915818,0.005861235,0.006520624,0.00659389,0.004762254,0.004249396,0.001904901,0.000366327,0.005348377,0.003150414,0.006007766,0.004322661,0.004249396,0.005275112,0.004688988,0.006447359,0.003663272,0.005348377,0.003956334,0.004835519,0.005055315,0.00739981,0.009011649,0.008205729,0.007912668,0.010257162,0.008718587,0.007033482,0.007180013,0.004249396,0.008938384,0.008498791,0.00659389,0.008498791,0.008865118,0.009304711,0.008791853,0.006374093,0.00659389,0.006667155,0.006081032,0.008498791,0.007253279,0.011136347,0.004615723,0.006007766,0.004615723,0.005934501,0.00417613,0.001831636,0.003150414,0.006813686,0.004395926,0.00417613,0.004542457,0.003516741,0.002344494,0.002051432,0.001831636,0.001831636,0.002124698,0.00241776,0.002857352,0.003077149,0.003223679,0.003516741,0.003663272,0.003956334,0.004102865,0.004249396,0.004249396,0.004102865,0.003809803,0.00417613,0.004762254,0.004615723,0.003003883,0.003956334,0.003736537,0.000659389,0,0.003663272,0.00256429,0.003296945,0.005934501,0.002197963,0.005128581,0.002491025,0.003443476\nSRI-1053325-001.txt,O=C(Cn1nnc2ccccc2c1=O)NCc1cccnc1,0.985470001,0.990491252,0.994326381,0.998537116,1,0.999248789,0.994781062,0.984481566,0.968488682,0.947355936,0.923811407,0.897301572,0.868676485,0.834120787,0.789838885,0.73812395,0.677453791,0.613462489,0.550064248,0.490797667,0.439161807,0.396837007,0.364040724,0.339310072,0.322269447,0.309736088,0.301255313,0.295581694,0.292379164,0.290362756,0.289967382,0.290204606,0.292240783,0.296273599,0.30006919,0.304912523,0.309736088,0.313808441,0.317169121,0.320767026,0.323139271,0.325392903,0.327330236,0.32788376,0.327369774,0.324957991,0.321874073,0.31964021,0.316753978,0.313017693,0.307917367,0.299436592,0.288959178,0.277888702,0.267391519,0.258950282,0.2536325,0.250943956,0.250607888,0.252011466,0.253098745,0.255629139,0.256914105,0.257171098,0.257566472,0.256736187,0.255134921,0.253197588,0.251220718,0.247642582,0.2449145,0.240506079,0.237026787,0.232400909,0.228605318,0.224710883,0.220401305,0.215399822,0.213304339,0.209311061,0.205673619,0.203064149,0.199466245,0.195097361,0.188455076,0.181397648,0.173490165,0.165523376,0.157497282,0.149945636,0.144192943,0.139211229,0.135435406,0.133418998,0.132173569,0.129919937,0.125392903,0.118632006,0.108846496,0.097281803,0.084847287,0.073460512,0.061381833,0.0507265,0.041336365,0.033349807,0.027320352,0.022437481,0.017890679,0.013976475,0.011347237,0.009548285,0.008302857,0.006286449,0.005812,0.004487496,0.00336068,0.003301374,0.003123456,0.002708313,0.001976871,0.001996639,0.001561728,0.001700109,0.001146585,0.000948898,0.001403578,0.001759415,0.001324503,0.000889592,0.001462884,0.001858258,0.00122566,0.000948898,0.001146585,0.000889592,0.000968667,0.000948898,0.000434912,0.000118612,0.000751211,0.001027973,0.000711673,0.000672136,0.000296531,0.000177918,0.000217456,0.000118612,0.000217456,0.000316299,0.000316299,0.000256993,0.000217456,0.00015815,9.88E-05,5.93E-05,1.98E-05,0,1.98E-05,3.95E-05,5.93E-05,7.91E-05,0.000118612,0.00015815,0.000296531,0.000375605,0.000197687,0.001205891,0.001443116,0.001047741,0.000415143,0.000375605,0.000138381,0.000474449,0.000573292,0.000672136,0.000691905,0.000731442,0.000869823,0.000494218,0\nSRI-1052757-001.txt,CCCCc1ccc(cc1)N1CC(CC1=O)C(=O)OCC(=O)Nc1ccc(Oc2ccccc2)cc1,0.45994345,0.456173421,0.450518379,0.452403393,0.454288407,0.458058435,0.465598492,0.475023563,0.488218662,0.501413761,0.518378888,0.537229029,0.556079171,0.580584354,0.605089538,0.631479736,0.659377945,0.688784166,0.720075401,0.749670123,0.780961357,0.811310085,0.840150801,0.868803016,0.895004713,0.919698398,0.941941565,0.960414703,0.976248822,0.988878417,0.996229972,1,0.998491989,0.992836946,0.982092366,0.966880302,0.947370405,0.923279925,0.895042413,0.863807729,0.829783223,0.792648445,0.753590952,0.713685203,0.671102733,0.629839774,0.588369463,0.547408106,0.507163054,0.468218662,0.432346843,0.397756833,0.363430726,0.331046183,0.300395853,0.272196041,0.247822809,0.22537229,0.205730443,0.188426013,0.171196984,0.155042413,0.140848256,0.12793591,0.116852026,0.107181904,0.098209237,0.088897267,0.080584354,0.073025448,0.065824694,0.058944392,0.052346843,0.046918002,0.041809614,0.037134779,0.033119698,0.029029218,0.02671065,0.022789821,0.019302545,0.016248822,0.014420358,0.01198869,0.008972667,0.007144204,0.005673893,0.003826579,0.003261074,0.00273327,0.001960415,0.001790763,0.001922714,0.001206409,0.001017908,0.001244109,0.000716305,0.000433553,0.000678605,0.000848256,0.001149859,0.001508011,0.000527804,0,0.00139491,0.000584354,0.001583412,0.001639962,0.000301602,0.000565504,0.001639962,0.000395853,0.001432611,0.001262959,0.000961357,0.000735156,0.001771913,0.002167766,0.00133836,0.000603205,0.000527804,0.001621112,0.001413761,0.001112158,0.001602262,0.001621112,0.002130066,0.001847314,0.001639962,0.001790763,0.001753063,0.000942507,0.001168709,0.00131951,0.001979265,0.001696513,0.002111216,0.002111216,0.002186616,0.002243167,0.001998115,0.002224317,0.002243167,0.002563619,0.002469369,0.002488219,0.002356268,0.002356268,0.002393968,0.002375118,0.002243167,0.002092366,0.001979265,0.002016965,0.002054665,0.002054665,0.002054665,0.002054665,0.002073516,0.002111216,0.002130066,0.002167766,0.002186616,0.002186616,0.002148916,0.002224317,0.002148916,0.001922714,0.002186616,0.001583412,0.002431668,0.002412818,0.002205467,0.002525919,0.00260132,0.002375118,0.00262017,0.001545712,0.002092366,0.002243167,0.001828464\nSRI-1053335-001.txt,CC(C)C(NS(=O)(=O)c1ccc(F)c(C)c1)C(O)=O,0.961323593,0.96991835,0.984959175,0.987107864,0.987107864,0.995702621,1,0.978513107,0.96991835,0.950580146,0.9398367,0.90760636,0.873227331,0.832402235,0.793725827,0.733562527,0.666953159,0.60249248,0.544477869,0.486463257,0.434894714,0.38547486,0.353244521,0.353244521,0.353244521,0.351525569,0.34336055,0.34937688,0.360550064,0.37752471,0.401804899,0.417490331,0.444134078,0.469703481,0.486892995,0.502793296,0.522990976,0.531800602,0.532445208,0.547915771,0.559948431,0.567683713,0.560378169,0.56424581,0.555436184,0.544907606,0.536527718,0.523420713,0.51009884,0.488826816,0.469058874,0.454018049,0.420283627,0.403308982,0.393854749,0.374731414,0.350451225,0.322733133,0.305973356,0.28921358,0.285345939,0.292006876,0.297808337,0.293296089,0.290287924,0.298023206,0.301675978,0.297593468,0.293725827,0.294585303,0.286420284,0.277825526,0.264933391,0.268156425,0.269660507,0.263859046,0.257412978,0.245810056,0.240223464,0.237215299,0.240223464,0.227761066,0.233562527,0.227761066,0.21680275,0.205199828,0.197034809,0.18865492,0.16265578,0.174258702,0.16673829,0.157498926,0.153416416,0.162226042,0.163515256,0.157928664,0.146110872,0.133863343,0.123764504,0.109153416,0.087451654,0.065749893,0.054791577,0.051568543,0.042758917,0.037816932,0.031585733,0.019123335,0.015470563,0.019767942,0.009883971,0.01203266,0.003652772,0.018478728,0.012247529,0.018263859,0.008165019,0.009669102,0.016544908,0.01396648,0.022346369,0.010313709,0.011388053,0.007735281,0.010958315,0.004941985,0.016974645,0.016544908,0.007305544,0.009669102,0.009454233,0.021057155,0.01611517,0.022561238,0.015255694,0.001718951,0.010313709,0.004941985,0.012677267,0.016330039,0.013321874,0.009883971,0.013536743,0.00193382,0,0.003437903,0.00601633,0.006660937,0.004941985,0.003867641,0.003867641,0.003437903,0.003223034,0.003008165,0.002793296,0.002578427,0.002148689,0.001718951,0.001718951,0.002148689,0.002148689,0.002793296,0.003223034,0.002793296,0.002363558,0.002148689,0.001718951,0.008165019,0.013321874,0.021701762,0.002148689,0.01396648,0.002148689,0.006660937,0.007305544,0.013536743,0.006446068,0.005801461,0.012892136,0.011817791,0\nSRI-1053159-001.txt,CCC(NS(=O)(=O)c1ccc(C)cc1)C(=O)NCc1ccccc1,0.930944991,0.925633067,0.926391914,0.932462684,0.943086531,0.95750461,0.972681535,0.986340767,0.996964615,1,0.99392923,0.980269997,0.955228071,0.920169374,0.876687484,0.824782401,0.765668278,0.700635154,0.632566646,0.560628021,0.488309974,0.41720608,0.349365225,0.286836294,0.23197171,0.185757974,0.148726277,0.119586581,0.097883578,0.082023691,0.070944536,0.063659612,0.059713611,0.057558488,0.056465749,0.056055972,0.056420219,0.057657138,0.058810584,0.059577019,0.059265892,0.058840938,0.059038238,0.059797085,0.060813938,0.060480046,0.058977531,0.056974176,0.054826642,0.052390745,0.048998702,0.044126909,0.038913636,0.035407766,0.034497151,0.035089051,0.0340039,0.029223169,0.022249372,0.015920594,0.010965328,0.00745187,0.005243628,0.003672816,0.003042973,0.002709081,0.002132358,0.001965412,0.001806054,0.001661873,0.001297627,0.001161035,0.001244508,0.001365923,0.001441808,0.001069973,0.000963735,0.000523604,0.000963735,0.000880262,0.000553958,0.000516015,0.000910616,0.000561546,0.000500839,0.000682962,0.000713315,0.000553958,0.000440131,0.000553958,0.000553958,0.000599489,0.000584312,0.000478073,0.000288362,0.000371835,0.00049325,0.000485662,0.000720904,0.000682962,0.0003946,0.000523604,0.000584312,0.000265596,0.000576723,0.000743669,0.000516015,0.000781612,0.00049325,0.000129004,0.000576723,0.000174535,0.000387012,0.000553958,0.000402189,0.000409777,0.000288362,0.000667785,0.000804377,0.000872673,0.000516015,0.000417365,0.000402189,0.000455308,0.000538781,0.000698139,0.000402189,0.000356658,0.0005919,0.000614665,0.0007892,0.000607077,0.000523604,0.000424954,0.000455308,0.000440131,0.000447719,0.000273185,0.0003946,0.000561546,0.000538781,0.000166946,0.000364246,0.000516015,0.000182123,0.000166946,0.000227654,0.000280773,0.000265596,0.000220065,0.000174535,0.000151769,0.000129004,0.000129004,0.000121415,0.000121415,0.000121415,0.000129004,0.000136592,0.000144181,0.000144181,0.000166946,0.000182123,0.000212477,0.000303539,0.000349069,0.000364246,0.000569135,0.000576723,0.000523604,0.000523604,0.000478073,0,0.000242831,0.000242831,0.000402189,0.000531192,0.000303539,0.000250419,0.000523604,0.000599489\nSRI-1052768-001.txt,OC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)COc1ccc2c(cc(=O)oc2c1)-c1ccccc1,1,0.993732916,0.98521611,0.969789442,0.944560412,0.908725548,0.863891795,0.81214818,0.755423036,0.69704274,0.641329972,0.591450412,0.547275506,0.50976942,0.478176889,0.452031901,0.430418497,0.41205112,0.396383411,0.382515479,0.37001345,0.358250616,0.346841309,0.335351656,0.324552988,0.313947154,0.30390375,0.294679889,0.286886207,0.280570915,0.276378397,0.273850673,0.273150045,0.273823355,0.275557248,0.277999804,0.280836061,0.284011384,0.287376326,0.290667348,0.294512766,0.298496382,0.303068139,0.308113945,0.313469891,0.318956,0.324544953,0.329888044,0.335102579,0.339905737,0.344181816,0.347962957,0.351242731,0.353953646,0.355870731,0.356955419,0.357471248,0.357639977,0.35821687,0.358665208,0.359340124,0.359369049,0.358575219,0.356590642,0.353135711,0.347863326,0.341461259,0.335705184,0.33192565,0.330582244,0.330530822,0.329203486,0.324302305,0.315425543,0.30448225,0.293360587,0.283731775,0.275767758,0.269645299,0.264863032,0.26155594,0.259354426,0.258282594,0.258305091,0.259159986,0.261062608,0.264035456,0.267622156,0.271960906,0.276834769,0.28204127,0.287528985,0.293052054,0.298353364,0.303669137,0.308661913,0.313424897,0.317591704,0.321599424,0.325129881,0.328220036,0.331122178,0.333503669,0.335398257,0.336402597,0.336860577,0.336269221,0.334872786,0.332189189,0.328539818,0.32390539,0.318351789,0.311964184,0.304900056,0.297236537,0.289055583,0.280744465,0.272083034,0.263238411,0.254159174,0.244591426,0.234957794,0.224715129,0.214016092,0.202555363,0.190627014,0.178423877,0.165692055,0.153188419,0.141036704,0.129342969,0.117679765,0.106100122,0.094886863,0.084271387,0.074227984,0.065060365,0.056681756,0.049088943,0.042222469,0.03610001,0.030732815,0.02603893,0.021920331,0.018484683,0.015785017,0.014165216,0.013376207,0.012407219,0.010610655,0.008526448,0.006657571,0.005410582,0.004671388,0.004215016,0.003867916,0.003546527,0.003223531,0.002902142,0.002572718,0.002233653,0.001841558,0.001426967,0.001033265,0.000713483,0.000523864,0.00042584,0.000371204,0.000350314,0.000249076,0.000202475,0.000226579,0.000183192,0.0001157,0.000102844,6.43E-05,5.14E-05,5.62E-05,0,5.95E-05,6.27E-05\nSRI-1053272-001.txt,OC(=O)C(Cc1ccccc1)NS(=O)(=O)c1cccs1,0.773263836,0.749655067,0.733864786,0.727272727,0.729418979,0.740456845,0.753334355,0.772803925,0.793193316,0.816955389,0.841790587,0.867085697,0.897439828,0.922734938,0.946497011,0.96596658,0.980530431,0.991414993,0.997547141,1,0.998466963,0.992488119,0.982676683,0.968726046,0.950329603,0.929786908,0.908937605,0.889468036,0.872298022,0.858393377,0.847938065,0.841208033,0.836823547,0.833527518,0.829020389,0.82405335,0.816326843,0.808033114,0.796351372,0.780867699,0.75975778,0.73236241,0.702038939,0.667254331,0.629204354,0.588210946,0.543476928,0.497485819,0.450452246,0.401916296,0.354913383,0.309244213,0.265414686,0.224589913,0.188287598,0.156139813,0.127931933,0.104277173,0.084807604,0.06848076,0.055971179,0.046634984,0.038862487,0.032546374,0.027717308,0.024390618,0.021002606,0.018749042,0.01660279,0.015606316,0.014057949,0.013030814,0.011758393,0.011283152,0.010102713,0.008493025,0.006883336,0.006392764,0.006438755,0.006423425,0.006576728,0.005948183,0.005733558,0.006592059,0.006898666,0.006714702,0.006162809,0.006101487,0.006101487,0.006515407,0.006362103,0.006101487,0.00581021,0.005472942,0.006086157,0.005212326,0.005151004,0.00538096,0.00496704,0.003617967,0.003633298,0.004491798,0.003771271,0.00332669,0.002514181,0.001854975,0.001625019,0.001471715,0.000950483,0.001717001,0.001548367,0.001548367,0.001502376,0.00165568,0.00164035,0.001441055,0.00167101,0.000536563,0.001533037,0.000935153,0.000689867,0.00165568,0.002038939,0.001946957,0.002437529,0.002100261,0.001594358,0.002299555,0.001824314,0.00164035,0.001762992,0.001962287,0.002636824,0.001410394,0.001057795,0.001548367,0.001625019,0.001073126,0.001594358,0.001119117,0.001103787,0.001011804,0.000659206,0.000766518,0.000797179,0.000996474,0.001042465,0.001011804,0.000858501,0.000597884,0.000536563,0.000536563,0.000475241,0.000383259,0.000306607,0.000383259,0.000459911,0.000521233,0.000582554,0.000643876,0.000705197,0.000781849,0.00081251,0.00082784,0.000904492,0.001027135,0.001287751,0.001349073,0.000628545,0.000536563,0.00082784,0.000291277,0.000444581,0.000275947,0.000919822,0.000935153,0.00081251,0.000689867,0.000459911,0,0.000643876\nSRI-0000198.txt,CC1=CC=C(C)C2=C1N(C=O)C1=C2C=CC=C1,0.85909035,0.894205929,0.925742851,0.952359118,0.972936401,0.987027366,0.995079346,1,0.999105336,0.991053356,0.975396728,0.952582784,0.922611526,0.889061609,0.849249041,0.797134837,0.729229806,0.649157338,0.566356144,0.488676903,0.422292801,0.368635301,0.326608439,0.294624185,0.271541842,0.255527349,0.24582024,0.240832485,0.240116754,0.242442881,0.247453002,0.254386652,0.262214965,0.27096031,0.280195484,0.289969693,0.300520024,0.31143493,0.322703229,0.334342813,0.345754258,0.356653508,0.366935439,0.376365202,0.385038974,0.392504949,0.39866024,0.402869636,0.404806585,0.404549369,0.401782619,0.397617956,0.393077534,0.38943625,0.386817119,0.384942797,0.3823684,0.377798902,0.36919894,0.355195205,0.336252922,0.31280153,0.286462609,0.257415091,0.227041233,0.196794865,0.168507812,0.144389895,0.12607164,0.113052036,0.104447601,0.098925284,0.095284,0.092526197,0.090115076,0.087594359,0.085668594,0.085151925,0.086402219,0.090030083,0.096332994,0.105362395,0.116299668,0.127353247,0.135763093,0.139243338,0.136711437,0.129945537,0.121754884,0.114669142,0.110146613,0.109108802,0.112571154,0.121584898,0.137040226,0.157286483,0.176866214,0.187687181,0.18258983,0.161773225,0.131768416,0.100294121,0.07234704,0.050450128,0.034686141,0.023887541,0.016844295,0.012176383,0.00920386,0.007430188,0.006135161,0.00537246,0.005050381,0.004667912,0.004424116,0.004225053,0.004108746,0.003882844,0.003681544,0.003368412,0.002916606,0.002500587,0.002207585,0.001796039,0.001585793,0.00133305,0.001167537,0.001017681,0.000693365,0.000657578,0.000599425,0.000489829,0.000590479,0.000465226,0.000418256,0.000366812,0.000319843,0.000306423,0.000301949,0.000375759,0.000346682,0.000214719,0.000219193,0.000205773,0.000230376,0.000268399,0.000266163,0.000221429,0.000165513,0.0001342,0.000105123,7.83E-05,7.38E-05,7.83E-05,8.5E-05,9.17E-05,9.39E-05,9.84E-05,0.000105123,0.000109596,0.00011407,0.00012078,0.00012749,0.00014091,0.000152093,0.000183406,0.000223666,0.000216956,0.000111833,0.00012749,0.000214719,0.000239323,0.000118543,0.00012078,0,0.000165513,0.000145383,0.000163276,6.49E-05,0.000243796,0.0002013\nSRI-1052849-001.txt,COc1ccc(CCN2[C@H]3CS(=O)(=O)C[C@H]3S\\C2=N/C(=O)CCCC(O)=O)cc1,0.635905601,0.657059474,0.675276583,0.690006287,0.700743827,0.705791389,0.704460668,0.696246908,0.681241884,0.658527856,0.629435545,0.595708655,0.559136775,0.523069652,0.490076952,0.462911893,0.442721645,0.430836932,0.426523561,0.429873306,0.439830769,0.455294663,0.475760232,0.500126189,0.527796005,0.558219037,0.589835128,0.623286697,0.658018511,0.692640196,0.727064567,0.761158553,0.793940173,0.825207524,0.85452468,0.881983416,0.90657422,0.928168607,0.947615486,0.963602491,0.977111602,0.987170016,0.994254957,0.998641747,1,0.998393958,0.993286743,0.985385014,0.973881162,0.958527397,0.939805531,0.91745401,0.891601316,0.862509005,0.830438633,0.795293837,0.757505954,0.716758364,0.673170374,0.62794422,0.581630546,0.536789842,0.49303207,0.452183529,0.413349424,0.375043019,0.33734691,0.300384991,0.265185131,0.232279617,0.202866097,0.177430975,0.155781523,0.137220262,0.121214902,0.107682848,0.095697183,0.085230375,0.076282425,0.068045722,0.060850652,0.054408127,0.048965938,0.043739417,0.039072717,0.035071377,0.031450899,0.027848775,0.024879891,0.022122087,0.019749733,0.017570104,0.015766748,0.014064343,0.012646437,0.011421256,0.010301615,0.009131498,0.00817705,0.007117062,0.006185558,0.005524786,0.004478564,0.003900389,0.003450697,0.002895465,0.002257637,0.001927251,0.001532623,0.00119306,0.001408729,0.001248124,0.001004924,0.000830553,0.000798433,0.000885618,0.000743368,0.000697481,0.000656183,0.000550643,0.00055982,0.000458869,0.000504756,0.000518522,0.000380861,0.00038545,0.000394628,0.00027991,0.000504756,0.000458869,0.000426748,0.000284499,0.000165193,0.000312031,0.000298265,0.000302854,0.000247789,0.000261555,0.000215669,0.000321208,0.000206491,0.000238612,0.000307442,0.000266144,0.000201902,0.000289088,0.000348741,0.000371684,0.000348741,0.000302854,0.000284499,0.000266144,0.000229435,0.000201902,0.000178959,0.000165193,0.000146838,0.000128483,0.000110129,9.18E-05,7.8E-05,6.42E-05,5.97E-05,7.34E-05,9.18E-05,8.26E-05,5.51E-05,0.000160604,0.000128483,0.000275322,0.000312031,0.000119306,0,0.000243201,0.00021108,0.000293676,0.000119306,9.64E-05,7.8E-05,0,4.59E-06\nSRI-0000165.txt,CCOC(=O)C1=CC=C(C=C1)N(CCC=C)S(=O)(=O)C1=CC=C(C)C=C1,0.920337611,0.932846581,0.946013918,0.958522888,0.970373492,0.981565728,0.990782864,0.996708166,1,1,0.995391432,0.985515929,0.973665326,0.955889421,0.934163314,0.909803741,0.881493966,0.852459988,0.821780092,0.790771013,0.760617811,0.731122976,0.703603242,0.678058608,0.654489074,0.634145539,0.617093837,0.60372899,0.59378765,0.587072308,0.583122107,0.581607864,0.582529577,0.584438841,0.588059859,0.59267501,0.597296746,0.602827027,0.607053742,0.610180985,0.611609641,0.612491853,0.611899323,0.610516752,0.608693076,0.605137895,0.599370601,0.591285856,0.581759288,0.5708699,0.559407733,0.546786841,0.532776794,0.51744343,0.502281241,0.488165856,0.473596197,0.458091658,0.440460593,0.421032188,0.400714986,0.3803517,0.360673114,0.340750933,0.321625376,0.302361562,0.282399879,0.261378225,0.239803543,0.216793622,0.193566439,0.171491398,0.1502459,0.13066607,0.11318643,0.097280287,0.083013477,0.070721768,0.059878465,0.050417734,0.04242516,0.035828324,0.03050872,0.025623638,0.021653686,0.018427688,0.015544041,0.013147586,0.011376579,0.009842584,0.008598271,0.007577803,0.006952354,0.006333489,0.005622453,0.00516818,0.004509813,0.004503229,0.003989703,0.003897532,0.003700022,0.003403757,0.003232581,0.003298418,0.003232581,0.003278667,0.003100908,0.002732222,0.002798059,0.002258198,0.002521545,0.002738806,0.002666386,0.002607133,0.002554463,0.002198945,0.002403039,0.00242279,0.002356953,0.00215286,0.001988268,0.001968517,0.002040937,0.002192362,0.00195535,0.001948766,0.00235037,0.002317451,0.001961933,0.001764423,0.001843427,0.002008019,0.001843427,0.001454991,0.001560329,0.001882929,0.00183026,0.001718337,0.001527411,0.00138257,0.001415489,0.001027052,0.001389154,0.001461574,0.001303566,0.001402321,0.001356236,0.00123773,0.001020469,0.000743955,0.000539861,0.000388436,0.000329183,0.000335767,0.000381853,0.000447689,0.000487191,0.000533277,0.000566195,0.000579363,0.000585947,0.000579363,0.000553028,0.000513526,0.000506942,0.000460857,0.000348934,0.000309432,0.000276514,0.000368685,0.000151424,0.000237012,0.000342351,7.9E-05,9.22E-05,0,0.00019751,0.000184343,0.000131673,3.29E-05,0.000355518\nSRI-0000005.txt,CCC1=[N+]([O-])C2=C(C=CC=C2)[N+]([O-])=N1,0.73248214,0.794217031,0.853496557,0.907397664,0.952022948,0.983786796,1,0.998713856,0.982110912,0.954868053,0.923961634,0.894886995,0.872359995,0.858446261,0.853613479,0.857627806,0.868696435,0.885143483,0.90447461,0.924858037,0.943994294,0.960573854,0.973131292,0.98119892,0.98484689,0.982617575,0.974499281,0.96175087,0.945073875,0.923887583,0.896329034,0.860995163,0.817998994,0.769417845,0.716358577,0.65457302,0.58001177,0.494148047,0.400820793,0.310685515,0.231996913,0.168722548,0.121548361,0.089055698,0.068044789,0.056056372,0.050748107,0.050463596,0.053866031,0.060246082,0.068407248,0.078357322,0.089663693,0.101870365,0.114790261,0.128224615,0.142099376,0.156188494,0.170445201,0.18466683,0.198580565,0.212163021,0.225219326,0.237710509,0.248993495,0.259687974,0.26915477,0.277612138,0.284319572,0.289990295,0.294499593,0.296993932,0.297991667,0.297060188,0.294230672,0.289210815,0.282113641,0.273309403,0.262423952,0.250985069,0.237835226,0.224276155,0.21022601,0.195922535,0.181700905,0.167584505,0.153608412,0.140267596,0.127113855,0.114525238,0.102186054,0.090357431,0.079316083,0.068434529,0.058472763,0.049216427,0.040774648,0.033225375,0.0262802,0.020426298,0.015418133,0.011056937,0.007783117,0.004938012,0.002786644,0.001204298,0.000342972,0,8.57E-05,0.000506663,0.001391373,0.002619056,0.004267658,0.006111131,0.007619426,0.009611,0.010877657,0.011883187,0.012339183,0.012771795,0.013032921,0.013122562,0.013403175,0.013609737,0.014494448,0.01573772,0.017409707,0.019541587,0.021841056,0.024093756,0.026588095,0.029168177,0.031627439,0.034234803,0.036682373,0.038977945,0.041172183,0.043498934,0.046156964,0.049403502,0.053238548,0.057494514,0.062479295,0.068625502,0.075679805,0.08325636,0.089160928,0.092832283,0.098577058,0.111719106,0.127784208,0.142945113,0.155459679,0.16484463,0.172179546,0.17894544,0.186120562,0.194211575,0.203237964,0.213823315,0.225737681,0.240313975,0.257579478,0.278266902,0.300817286,0.32139948,0.337632171,0.35114837,0.364013703,0.376064479,0.387394234,0.398864296,0.409874465,0.420358483,0.429326412,0.43788901,0.445578589,0.452843352,0.459055815,0.464106851,0.468327741\nSRI-0000011.txt,COC(=O)NCC1=NC2=CC(Cl)=C(Cl)C=C2N1,1,0.900944053,0.804935981,0.713604822,0.630129824,0.555456879,0.489007943,0.430940664,0.382095835,0.341028343,0.307685638,0.280753981,0.259629053,0.243601433,0.231331107,0.221924733,0.215172113,0.210390102,0.207105753,0.20510887,0.204241802,0.203558657,0.203453558,0.203506108,0.203637482,0.204005329,0.204557099,0.205234989,0.205841936,0.206596023,0.207284422,0.207809918,0.207809918,0.206735279,0.204241802,0.200539684,0.1958654,0.191015074,0.186698126,0.18259926,0.17885773,0.174285917,0.168179656,0.160320868,0.151177242,0.142149225,0.134353496,0.128996067,0.126405373,0.126820514,0.130199452,0.136014062,0.144466661,0.155015988,0.167620004,0.181698034,0.19707404,0.212928246,0.22881661,0.244363401,0.259739407,0.275236276,0.292328025,0.311019908,0.331627224,0.351950772,0.369954256,0.382429524,0.387760679,0.38611325,0.379489376,0.371601685,0.366598965,0.367242698,0.372106161,0.377014291,0.373099348,0.353514121,0.315258032,0.261933351,0.203456185,0.148799374,0.104016627,0.070240388,0.046829553,0.031416763,0.02121689,0.014650821,0.010178852,0.007391098,0.005315389,0.003880786,0.003108307,0.0024383,0.002067826,0.001718371,0.001495035,0.001353152,0.001279582,0.001079894,0.001079894,0.001008952,0.000877578,0.000754086,0.000748831,0.000764596,0.000585928,0.000651615,0.000638477,0.000428279,0.000386239,0.000417769,0.000367847,0.00031267,0.000320552,0.000307415,0.000399377,0.00026012,8.41E-05,0.000139256,0.000199688,0.000102472,9.72E-05,0.000139256,0.000176041,0.000112982,0.000165531,0.000157649,0.000144511,8.41E-05,0.000144511,0.000149766,0.000176041,0.000197061,0.000141884,6.83E-05,7.62E-05,0.000112982,7.62E-05,0.000176041,0.000197061,0.000286395,0.000212826,0.000299533,0.000278513,0.000131374,2.36E-05,0,0.000155021,0.000423024,0.000633222,0.000764596,0.000806636,0.000788244,0.000733067,0.000662125,0.000588555,0.000509731,0.000441416,0.000388867,0.000346827,0.000299533,0.000268003,0.000257493,0.000275885,0.000352082,0.000417769,0.000449299,0.000449299,0.000402004,0.000475574,0.000420397,0.000522868,0.000470319,0.000378357,0.000409887,0.000357337,0.000404632,0.000412514,0.000451926,0.000378357\nSRI-1053132-001.txt,O=C(CCN1C(=O)c2ccccc2C1=O)NCc1ccc2OCOc2c1,1,0.993090742,0.983110702,0.963918317,0.927836634,0.876401044,0.814217718,0.748195916,0.678335636,0.615384615,0.568555197,0.540918164,0.517119607,0.498694918,0.479502533,0.461077844,0.440350069,0.421157685,0.4019653,0.388914479,0.375095962,0.36050975,0.341317365,0.315215722,0.285275603,0.250729311,0.218486105,0.193919853,0.172347612,0.161216029,0.15108245,0.144940887,0.141563028,0.143789344,0.144096423,0.141409489,0.144326731,0.147704591,0.149930907,0.151005681,0.152233994,0.156916935,0.158529096,0.157224014,0.160985721,0.159757408,0.156609857,0.156686627,0.153615845,0.15453708,0.151005681,0.146015661,0.145017657,0.143405497,0.146706587,0.144249962,0.143482266,0.14117918,0.141793336,0.142484262,0.138645785,0.139106403,0.13618916,0.134039613,0.131352679,0.131429449,0.127360663,0.122140335,0.121602948,0.118762475,0.114079533,0.11292799,0.111546138,0.108091509,0.104867189,0.0980347,0.092584063,0.086903117,0.081836327,0.076078612,0.069246123,0.061338861,0.057500384,0.056348841,0.051896208,0.049746661,0.043988945,0.040687855,0.039996929,0.038461538,0.034469522,0.031859358,0.029709811,0.022109627,0.023491479,0.021034853,0.017503455,0.015891294,0.013664978,0.011131583,0.0115922,0.009826501,0.007369876,0.009826501,0.007600184,0.007369876,0.003531399,0.005834485,0.005604176,0.005220329,0.003147551,0.002840473,0.003992016,0.005066789,0.004682942,0.000690926,0.00161216,0.001996008,0.006064793,0.004759711,0.005757715,0.001305082,0.003224321,0.002072778,0.004299094,0.004452633,0.002072778,0.000767695,0.002994012,0.003838477,0.002610164,0.004759711,0.000690926,0.001765699,0.003454629,0.004222325,0.004375864,0.001228313,0.001919238,0.003224321,0.000614156,0.000307078,0.001765699,0.001996008,0.002763703,0.001996008,0.002610164,0.003147551,0.003454629,0.003147551,0.002533395,0.002149547,0.001919238,0.00168893,0.001305082,0.000998004,0.000921234,0.000921234,0.000921234,0.000921234,0.000921234,0.000998004,0.001305082,0.001458621,0.001919238,0.001228313,0.000767695,0.005143559,0.002149547,0,0.00161216,0.002917242,0.005143559,0.005527407,0.002533395,0.000690926,0.001381852,0.00337786,0.002226317,0.006832489,0.003684938\nSRI-0000561.txt,CCN(CC)C(=O)N1CC2CCC1CN2C,1,0.907818598,0.823711479,0.736912932,0.653613242,0.576100121,0.511909568,0.440317588,0.381106177,0.335755618,0.288790203,0.246669358,0.212219082,0.179383663,0.15394967,0.130130534,0.110213969,0.095949401,0.08424169,0.06970798,0.05611627,0.050464271,0.04360113,0.035392276,0.029874849,0.023011708,0.022877136,0.019781994,0.017628852,0.016283138,0.015071996,0.01359171,0.00874714,0.010900283,0.012111425,0.008612569,0.008881712,0.009554569,0.01157314,0.012515139,0.00874714,0.009150855,0.008612569,0.011169425,0.00968914,0.012111425,0.012515139,0.009554569,0.009823711,0.012649711,0.009554569,0.011303997,0.010496568,0.006863141,0.006055713,0.009823711,0.00968914,0.008343426,0.006459427,0.00578657,0.013860853,0.009285426,0.008343426,0.009150855,0.006190284,0.006324855,0.009554569,0.012784282,0.011034854,0.006055713,0.006324855,0.004709999,0.007535998,0.010496568,0.00672857,0.005651998,0.011707711,0.011303997,0.014937424,0.007535998,0.008343426,0.012380568,0.008477998,0.008881712,0.015744853,0.004979141,0.007805141,0.013457139,0.010361997,0.009419997,0.011034854,0.006324855,0.004306284,0.004979141,0.00968914,0.000672857,0.008477998,0.007805141,0.007132284,0.008612569,0.010227426,0.005382856,0.005921141,0.00874714,0.005113713,0.007132284,0.003095142,0.006593998,0.009419997,0.002960571,0.005382856,0.001749428,0.007939712,0.008074283,0.008208855,0.011303997,0.010227426,0.007132284,0.005113713,0.005517427,0.009823711,0.007805141,0.00968914,0.006997712,0.010227426,0.011169425,0.00578657,0.006593998,0.006459427,0.005651998,0.011976854,0.012649711,0.007670569,0.011303997,0.010900283,0.006324855,0.004440856,0.006997712,0.007132284,0.012649711,0.004171713,0.009285426,0.008612569,0.006190284,0.004575427,0.006997712,0.007939712,0.008477998,0.008477998,0.006324855,0.004037142,0.002422285,0.001749428,0.001211143,0.000942,0.001211143,0.001749428,0.002018571,0.002556856,0.002960571,0.003095142,0.003229713,0.002825999,0.001480285,0.000134571,0.000807428,0.002422285,0,0.005248284,0.008881712,0.005921141,0.000538286,0.002960571,0.007266855,0.00672857,0.008208855,0.005651998,0.002287714,0.006593998,0.003767999,0.006459427\nSRI-0000010.txt,NC(=N)SCCN1C(=O)C2=CC=CC=C2C1=O,0.991240816,1,0.996942873,0.979252756,0.94400992,0.890630421,0.820659996,0.739216757,0.655265987,0.575437186,0.505947658,0.449098835,0.402967131,0.366006808,0.334645493,0.307471412,0.283886879,0.263957159,0.247125785,0.232856902,0.22054252,0.208235007,0.193766896,0.175901595,0.155044431,0.132888848,0.112004204,0.093362599,0.077925825,0.06529886,0.055433614,0.047608743,0.041442964,0.036400422,0.032364327,0.029107972,0.026263813,0.02397612,0.022165889,0.020517101,0.019225551,0.018057659,0.017161131,0.016566881,0.016092854,0.015615393,0.015519214,0.015491734,0.015484864,0.015539823,0.015763097,0.016140944,0.016618405,0.017216091,0.017944305,0.01870687,0.019452259,0.020348787,0.021272795,0.022268938,0.023488354,0.024453581,0.025621473,0.027057292,0.028304188,0.029794966,0.031141476,0.032749044,0.034136774,0.035586333,0.036994672,0.038382402,0.039838831,0.041216256,0.04266238,0.043792486,0.045039382,0.045911865,0.046897703,0.047474779,0.047691182,0.047835451,0.047780491,0.047426689,0.046959533,0.046248493,0.045317615,0.044287123,0.042971527,0.041205951,0.03932015,0.037259165,0.034943993,0.032364327,0.029554518,0.02662792,0.023897116,0.021193791,0.018504206,0.01602759,0.013733027,0.011792266,0.009982035,0.008336682,0.007124137,0.006038685,0.005011627,0.004266238,0.003551763,0.003084607,0.002462877,0.001937325,0.001707182,0.001439254,0.001185066,0.001057972,0.000886223,0.000834699,0.000577076,0.000456852,0.000477461,0.000326323,0.000405327,0.000384717,0.000316018,0.000113354,0.000216403,0.000216403,0.000116789,0.000140834,7.56E-05,0.000123659,0.000123659,4.47E-05,2.4E-05,4.47E-05,5.84E-05,0.000130529,0.000178619,0.000216403,0.000206098,0.000302278,0.000216403,0.000388152,0.000322888,0.000140834,6.87E-06,0,0.000175184,0.000446547,0.000659515,0.000786609,0.000834699,0.000824394,0.000765999,0.0006973,0.0006286,0.000549596,0.000484331,0.000439677,0.000401892,0.000367542,0.000350367,0.000364107,0.000401892,0.000443112,0.000484331,0.000439677,0.000463722,0.000398457,0.000604555,0.000542726,0.000693865,0.000528986,0.000494636,0.000374412,0.000432807,0.000577076,0.000559901,0.000573641,0.000412197\nSRI-1052814-001.txt,CN(C)S(=O)(=O)c1ccc(cc1)N1CC(CC1=O)C(=O)NCCc1c[nH]c2ccccc12,0.998091764,1,0.997185352,0.987739583,0.96977036,0.938745621,0.89226417,0.8302783,0.752613091,0.664468485,0.57641929,0.495669099,0.425223383,0.367292515,0.321606162,0.28732152,0.262943804,0.247216758,0.238073127,0.234352066,0.235067655,0.239027245,0.246071816,0.255485781,0.267078316,0.280817616,0.29621072,0.313607473,0.332371794,0.35262136,0.374225773,0.396963996,0.4205164,0.444813017,0.469554888,0.494883542,0.520024553,0.544841163,0.569659364,0.593572743,0.616627415,0.638767725,0.659704255,0.679228691,0.696665198,0.712632364,0.725974115,0.73716592,0.745431762,0.751724171,0.754850498,0.755082666,0.752450891,0.74759284,0.740120505,0.730954611,0.72035754,0.707822019,0.693584987,0.677590788,0.660007983,0.640553516,0.618670818,0.594526861,0.567210461,0.535147324,0.498087788,0.457160895,0.415718777,0.375259401,0.336833886,0.299639184,0.262519222,0.22589222,0.190615295,0.158784326,0.13109105,0.108025246,0.089318171,0.073853508,0.061135114,0.050639816,0.042036851,0.03491118,0.028984516,0.023962675,0.019894952,0.016673213,0.014000092,0.011869229,0.010202702,0.008959169,0.00791759,0.00711136,0.00655002,0.006109536,0.005843973,0.005642018,0.005403489,0.005403489,0.005374865,0.005285814,0.005288994,0.005300126,0.005328749,0.005268322,0.005366914,0.005409849,0.005277863,0.005352602,0.005368504,0.005316028,0.005287404,0.005296945,0.005242879,0.005201534,0.005126794,0.005004349,0.004786492,0.004727655,0.004637014,0.004468453,0.004323745,0.004153594,0.004053412,0.003977082,0.003608156,0.003612927,0.003463449,0.003193115,0.003053178,0.00298639,0.002852813,0.002868715,0.00282578,0.002757401,0.002701744,0.002673121,0.00258566,0.002517281,0.002437772,0.002409148,0.002246948,0.00226603,0.002135634,0.002057715,0.002008419,0.001982975,0.001908236,0.001733314,0.001548852,0.001391422,0.001264206,0.001173565,0.001105187,0.001044759,0.000982742,0.000917544,0.000849165,0.000777606,0.000699687,0.000610636,0.000513634,0.000411861,0.000318039,0.00024012,0.000157429,0.000106543,9.86E-05,0.000146298,0.000141528,7.31E-05,7.31E-05,2.39E-05,7.47E-05,6.84E-05,3.02E-05,6.2E-05,5.09E-05,0,6.36E-05\nSRI-1052771-001.txt,CCc1cc(=O)oc2c(C)c(OC(C)C(=O)NC(Cc3c[nH]c4ccc(O)cc34)C(O)=O)ccc12,1,0.97615552,0.947485678,0.914349808,0.877389581,0.836091661,0.792920063,0.748875793,0.704626188,0.659811914,0.615767643,0.572596045,0.530194452,0.48866553,0.448933287,0.411049054,0.376116507,0.344520646,0.316569475,0.292185992,0.272114536,0.256047104,0.243059691,0.233280631,0.225349582,0.218393873,0.21243917,0.206587134,0.201248434,0.196587339,0.19295035,0.191017638,0.190735303,0.191723476,0.193299419,0.194202891,0.193486787,0.1902194,0.185263136,0.179670335,0.175163241,0.172971294,0.173625798,0.17723712,0.183135357,0.190563335,0.199338823,0.208963882,0.219310178,0.229789943,0.240336441,0.250931706,0.261226669,0.271637133,0.281470093,0.291246586,0.300127307,0.308913061,0.317198312,0.324770025,0.331191865,0.3369284,0.342018131,0.346289091,0.350216115,0.354161106,0.358100963,0.362305189,0.367038151,0.371971315,0.377184247,0.382938749,0.388903719,0.394835322,0.401136527,0.407317098,0.413343669,0.419614074,0.425720211,0.431682614,0.437354982,0.442863083,0.44779368,0.451974805,0.455788896,0.458871481,0.461073695,0.462944806,0.464492516,0.465159853,0.465524322,0.465424221,0.464772284,0.462870372,0.460000821,0.455824829,0.45052463,0.444315825,0.437868319,0.43091261,0.423374263,0.415956551,0.407738034,0.399257715,0.390027926,0.380040964,0.3695535,0.358547566,0.347562165,0.335976161,0.324790559,0.31357159,0.302583623,0.29133642,0.280037884,0.268213178,0.2554773,0.242035584,0.227639063,0.212010534,0.195509332,0.178463995,0.160648652,0.143077144,0.125936839,0.109345804,0.093886676,0.079985524,0.067426747,0.056641547,0.047434858,0.039349808,0.032473666,0.026703764,0.021955401,0.018020677,0.014802057,0.012122441,0.010079362,0.008180017,0.006899242,0.005821236,0.004763763,0.004019425,0.003454755,0.003000452,0.002764317,0.00267705,0.002538449,0.00220478,0.001796678,0.001434775,0.001183241,0.001034373,0.000949672,0.000882939,0.000823905,0.000775138,0.000723804,0.000672471,0.00061857,0.000554403,0.000482536,0.000405536,0.000323402,0.000259235,0.000207901,0.000236135,0.000220735,0.000151434,0.000123201,0.000148868,8.98E-05,0.000187368,0.000200201,9.75E-05,2.57E-06,6.42E-05,9.75E-05,0,0.000141168\nSRI-0000473.txt,COC(=O)C(=C\\C1=CC(Cl)=CC(Cl)=C1)\\C1=CC=NC=C1,0.888579387,0.879294336,0.921077066,0.925719591,0.948932219,1,0.986072423,1,0.995357474,0.990714949,0.976787372,0.962859796,0.962859796,0.944289694,0.939647168,0.930362117,0.91643454,0.893221913,0.883936862,0.851439183,0.832869081,0.818941504,0.805013928,0.800371402,0.795728877,0.772516249,0.772516249,0.767873723,0.766945218,0.761374188,0.766016713,0.750232126,0.743268338,0.739090065,0.71634169,0.702414113,0.677344475,0.648560817,0.600278552,0.558960074,0.52553389,0.471216342,0.428969359,0.381151346,0.340761374,0.311977716,0.268802228,0.234911792,0.194986072,0.166202414,0.148560817,0.116527391,0.112349118,0.124419684,0.143454039,0.144382544,0.143918292,0.153667595,0.1545961,0.165273909,0.190343547,0.175487465,0.169452182,0.187093779,0.181987001,0.198700093,0.211699164,0.224233983,0.226555246,0.244196843,0.248375116,0.260909935,0.279480037,0.281337047,0.259517177,0.266945218,0.30547818,0.306406685,0.309656453,0.30362117,0.337975859,0.356081708,0.344939647,0.36536676,0.373259053,0.374651811,0.389972145,0.410399257,0.409935005,0.410399257,0.427112349,0.447075209,0.451717734,0.455896007,0.468430826,0.479108635,0.492571959,0.477715877,0.510213556,0.508356546,0.50185701,0.501392758,0.511606314,0.522748375,0.52181987,0.524141133,0.52553389,0.542246982,0.543175487,0.560817084,0.537140204,0.54735376,0.540854225,0.532033426,0.537140204,0.559888579,0.558495822,0.564066852,0.575673166,0.535283194,0.526926648,0.546425255,0.533426184,0.529247911,0.503249768,0.509285051,0.480965645,0.47818013,0.47632312,0.465181058,0.466573816,0.425255339,0.429433612,0.41457753,0.401114206,0.397400186,0.375580316,0.363509749,0.332404828,0.348189415,0.343082637,0.320334262,0.298050139,0.290622098,0.2818013,0.256731662,0.244661096,0.237233055,0.228412256,0.209842154,0.186629526,0.164809656,0.14902507,0.137418756,0.128597957,0.121169916,0.114206128,0.106778087,0.099350046,0.0909935,0.081708449,0.071030641,0.059424327,0.045961003,0.035283194,0.034818942,0.040389972,0.045961003,0.01810585,0.025998143,0.024141133,0.021355617,0.024605385,0.037140204,0.022284123,0.021355617,0.047818013,0.027390901,0,0.031569174,0.027855153\nSRI-0000301.txt,O=CNNC(=S)NCC1=CC=CC=C1,0.935904032,0.861233719,0.790286766,0.723672453,0.664775651,0.614747218,0.575076498,0.544951122,0.526875897,0.519361477,0.522475561,0.533442552,0.553684097,0.580898481,0.614747218,0.653334778,0.695171816,0.739852149,0.785141759,0.829957486,0.872065315,0.910923664,0.943960031,0.970903626,0.98981153,0.999627664,1,0.990772834,0.971668607,0.943005497,0.905426629,0.860225026,0.809952883,0.754109237,0.695828482,0.635895908,0.575915947,0.518582956,0.46355845,0.411147066,0.362195023,0.317656855,0.277282082,0.241361802,0.209638766,0.181016274,0.155534945,0.133411411,0.115417423,0.100287037,0.087126648,0.075259281,0.06457662,0.055891034,0.04876926,0.043096212,0.038790652,0.035013133,0.032068293,0.029719191,0.027634109,0.025704731,0.024059682,0.02250264,0.021338244,0.020464946,0.018928214,0.018054916,0.017066533,0.016091689,0.015123616,0.014703891,0.01392537,0.013512416,0.012713586,0.0117929,0.011386715,0.011027918,0.010736819,0.010479569,0.01017493,0.009944759,0.009829673,0.009849982,0.009836443,0.009613041,0.00963335,0.00964012,0.009802594,0.009565653,0.009978608,0.00990414,0.009863522,0.010215549,0.010269707,0.010378023,0.010432181,0.01044572,0.010330634,0.010337404,0.010743589,0.01043895,0.010540497,0.010655582,0.010838366,0.010750359,0.010669122,0.010960221,0.010831596,0.010831596,0.010601424,0.010574345,0.01071651,0.011217471,0.010838366,0.010655582,0.011021149,0.010594655,0.010499878,0.010168161,0.010371253,0.010202009,0.010120772,0.009958298,0.009822903,0.009525035,0.009883831,0.009761976,0.00938964,0.009227166,0.009159468,0.009024073,0.009051152,0.008861599,0.00856373,0.008238783,0.008259092,0.00803569,0.0077649,0.007710742,0.007372255,0.007399334,0.007277478,0.006614043,0.006532806,0.006282326,0.006119852,0.006031845,0.005855831,0.005497035,0.00509085,0.004677895,0.004359717,0.004122776,0.003939993,0.003777519,0.003594736,0.003405183,0.00320209,0.002992228,0.002748517,0.002470958,0.002166319,0.001854911,0.001557042,0.001293022,0.001096699,0.000995153,0.000907146,0.000940995,0.00081237,0.000155704,0.000365566,4.06E-05,4.06E-05,0.000155704,0.000203092,0.000250481,0,4.06E-05,8.12E-05\nSRI-0000659.txt,OCC1(OC2OC(CBr)C(O)C(O)C2O)OC(CBr)C(O)C1O,0.710982659,0.710982659,0.710982659,1,0.710982659,0.421965318,0.421965318,0.132947977,0.421965318,0.421965318,0.132947977,0.421965318,0.132947977,0.132947977,0.421965318,0.421965318,0.132947977,0.190751445,0.219653179,0.248554913,0.161849711,0.161849711,0.219653179,0.190751445,0.190751445,0.190751445,0.248554913,0.161849711,0.075144509,0.104046243,0.132947977,0.161849711,0.190751445,0.104046243,0.132947977,0.132947977,0.01734104,0.187861272,0.213872832,0.210982659,0.196531792,0.12716763,0.213872832,0.199421965,0.202312139,0.170520231,0.202312139,0.132947977,0.170520231,0.176300578,0.075144509,0.083815029,0.184971098,0.184971098,0.150289017,0.066473988,0.158959538,0.138728324,0.112716763,0.066473988,0.216763006,0.179190751,0.00867052,0.031791908,0.147398844,0.196531792,0.179190751,0.049132948,0.028901734,0.239884393,0.190751445,0.12716763,0.205202312,0.291907514,0.213872832,0.182080925,0.138728324,0.202312139,0.156069364,0.141618497,0.216763006,0.138728324,0.161849711,0.124277457,0.170520231,0.092485549,0.144508671,0.144508671,0.150289017,0.13583815,0.132947977,0.124277457,0.083815029,0.01734104,0.023121387,0.144508671,0.202312139,0.147398844,0.147398844,0.210982659,0.141618497,0.060693642,0.184971098,0.066473988,0.121387283,0.176300578,0.089595376,0.25433526,0.23699422,0.121387283,0.187861272,0.271676301,0.115606936,0.213872832,0.075144509,0.170520231,0.072254335,0.144508671,0.078034682,0.031791908,0.115606936,0.046242775,0.101156069,0.130057803,0.141618497,0.072254335,0.098265896,0.202312139,0.037572254,0.130057803,0.231213873,0.300578035,0.213872832,0.144508671,0.150289017,0.10982659,0.086705202,0,0.13583815,0.199421965,0.144508671,0.167630058,0.158959538,0.12716763,0.092485549,0.161849711,0.184971098,0.184971098,0.167630058,0.150289017,0.141618497,0.138728324,0.13583815,0.132947977,0.12716763,0.121387283,0.11849711,0.115606936,0.10982659,0.104046243,0.098265896,0.095375723,0.092485549,0.106936416,0.132947977,0.144508671,0.141618497,0.132947977,0.193641618,0.072254335,0.020231214,0.028901734,0.124277457,0.12716763,0.144508671,0.219653179,0.12716763,0.150289017,0.104046243,0.268786127,0.228323699\nSRI-1053033-001.txt,CCOC(=O)N1CCN(CC1)C(=O)CN1C(=O)c2ccccc2S1(=O)=O,1,0.920786415,0.855757724,0.801820103,0.758856803,0.722373022,0.688807944,0.655417987,0.620335184,0.584843762,0.551745676,0.523959629,0.501193749,0.483097794,0.464651594,0.440776608,0.410655599,0.374930681,0.337396167,0.302313364,0.273126339,0.250710704,0.234307596,0.222924657,0.2156279,0.211133099,0.208506266,0.206696671,0.205511678,0.204770327,0.203912229,0.202855658,0.2018166,0.200380599,0.198500954,0.19662131,0.194134576,0.191437694,0.188460618,0.185098273,0.181187211,0.177223613,0.173405951,0.16899871,0.164772429,0.160569497,0.156652599,0.152385456,0.148702053,0.145047838,0.14135276,0.137879504,0.134026817,0.130495187,0.127010256,0.12385222,0.121552283,0.119766037,0.118300848,0.116502927,0.113432452,0.108902626,0.103689824,0.097449638,0.092289372,0.088214863,0.085722291,0.083766761,0.080877245,0.075810378,0.067737247,0.057766959,0.047335517,0.037120058,0.028696683,0.022351423,0.017424654,0.013723739,0.011534712,0.009456596,0.008073131,0.00753609,0.0068823,0.007156658,0.007022398,0.006736365,0.006584593,0.006602105,0.006602105,0.006479519,0.006391958,0.006304397,0.006473682,0.006467845,0.006584593,0.006823926,0.007069097,0.007372642,0.007489391,0.006847276,0.006788902,0.006292723,0.005522185,0.004442265,0.00339737,0.002626832,0.001797921,0.001260879,0.001091595,0.000828911,0.000601253,0.000478667,0.000496179,0.000554553,0.000443643,0.000140098,0,0.000280195,0.000490342,0.000385269,0.000367757,0.00060709,0.000671302,0.000653789,0.000881448,0.000933985,0.000846424,0.001155806,0.001325091,0.001155806,0.001231692,0.001587774,0.001774571,0.001768734,0.001815433,0.002043092,0.001955531,0.002416686,0.002089791,0.00215984,0.002405011,0.002369986,0.002399173,0.002778605,0.002784442,0.002877841,0.002918702,0.002918702,0.002936215,0.002982914,0.003047125,0.003117174,0.003169711,0.003210573,0.00323976,0.003257272,0.003280622,0.003303971,0.003327321,0.003344833,0.003356508,0.003379857,0.003391532,0.003403207,0.003420719,0.003449906,0.00337402,0.003087987,0.003006264,0.00337402,0.00337402,0.003146361,0.003222248,0.003385695,0.003292296,0.003093825,0.002907028,0.00274358,0.002772767,0.002644344,0.002492572\nSRI-0000076.txt,O=C1CCC2=C1NC1=CC=CC=C21,0.428070135,0.449807662,0.472709699,0.497164417,0.521852037,0.547083096,0.571887167,0.597273493,0.622621002,0.647269805,0.670831732,0.692336357,0.710813255,0.72556372,0.735423241,0.73973193,0.73973193,0.733482391,0.722807712,0.706892737,0.687328963,0.664776278,0.639739305,0.612528579,0.582600662,0.549334482,0.513389929,0.474184746,0.432456457,0.389322992,0.346205055,0.303913919,0.262410769,0.221656788,0.182940699,0.147260101,0.116827563,0.093234583,0.076582084,0.066175243,0.060888366,0.059502599,0.06135417,0.065220345,0.070864338,0.077967852,0.086325155,0.095846968,0.106669151,0.118993552,0.132509636,0.147496885,0.16398247,0.181943102,0.201239039,0.221951797,0.244314278,0.268194504,0.293592476,0.320539246,0.349450157,0.379878813,0.412166804,0.445968659,0.480997131,0.517236694,0.553763503,0.59092303,0.627057787,0.66293247,0.697960942,0.733051522,0.767319181,0.800814381,0.834014572,0.866221047,0.897441571,0.92616616,0.95190184,0.973321067,0.989197225,0.998094085,1,0.994142513,0.981255265,0.962068015,0.936635108,0.906602386,0.872742305,0.836009766,0.796990905,0.757168532,0.71700845,0.676856133,0.638310839,0.601279409,0.567023395,0.534708232,0.505533365,0.479032991,0.454947034,0.433213389,0.412586028,0.39392669,0.376066983,0.359092303,0.34263389,0.326784903,0.310854401,0.295102458,0.279389331,0.264227406,0.249092652,0.234047178,0.219188026,0.204488023,0.190114083,0.175926465,0.162348274,0.148847717,0.135991522,0.123783572,0.112157877,0.101273586,0.090909444,0.08131776,0.07221517,0.064028662,0.056618495,0.04987598,0.044092245,0.038758787,0.033805736,0.029345662,0.025405735,0.021978193,0.018997046,0.016365253,0.01405564,0.01195564,0.010204993,0.008652312,0.007212201,0.006214604,0.005290759,0.004526064,0.004102958,0.003936045,0.003714788,0.003202404,0.002596858,0.002065065,0.00168854,0.001455638,0.00130037,0.001183919,0.001082995,0.00098207,0.000885028,0.000795749,0.000702588,0.000601664,0.000504621,0.000419224,0.000322181,0.000267837,0.000271719,0.000337708,0.000279482,0.000256192,0.000271719,0.000275601,0.000260074,0.000236784,0.000100924,1.94E-05,6.21E-05,0.00015915,0.00018244,9.7E-05,0\nSRI-031203.txt,COC(=O)\\C=C(\\O\\N=C(/N)CC1=CC=C(C)C=C1)C(=O)OC,0,0.020687284,0.04813484,0.079010387,0.112276654,0.146724088,0.18115786,0.214076216,0.245487099,0.278775552,0.314526729,0.351935724,0.390441533,0.429774728,0.469367687,0.509065316,0.548440251,0.587819472,0.627497018,0.666259617,0.703271662,0.738184452,0.770392196,0.799495297,0.82574316,0.848647056,0.869106033,0.887458456,0.90363984,0.918258817,0.931019413,0.941841617,0.950893951,0.958348122,0.964278554,0.968822935,0.972616055,0.975966101,0.978965198,0.981820597,0.984393413,0.987014672,0.989784395,0.992458815,0.994794022,0.996637573,0.998104528,0.999116494,0.999645962,0.999939313,0.999999995,0.999840777,0.998870768,0.996799955,0.994052575,0.990284877,0.98611208,0.98174578,0.977199081,0.972876444,0.968659952,0.964198247,0.959441635,0.954681739,0.950090995,0.945334094,0.940784588,0.936413571,0.931932431,0.927449086,0.923030143,0.918738377,0.914531737,0.910362339,0.906272482,0.902227443,0.898244233,0.894508137,0.890989971,0.887427788,0.884293644,0.881205114,0.878186286,0.875555229,0.873032574,0.870676472,0.868428026,0.866306636,0.86433421,0.862375697,0.860634226,0.859039436,0.857403494,0.855725795,0.85419353,0.852766827,0.851418966,0.850144221,0.848900986,0.847631691,0.84637137,0.845344032,0.844360249,0.843204204,0.842584523,0.842183344,0.840719197,0.838614939,0.837676274,0.837258318,0.837449896,0.837023643,0.835694137,0.834934172,0.834055788,0.833336156,0.832816186,0.832237622,0.831655514,0.831061683,0.830572552,0.830188513,0.829803375,0.829382329,0.828936199,0.82846188,0.828048096,0.827808808,0.827622765,0.827050005,0.82659313,0.826542525,0.826452445,0.826091726,0.825858072,0.825680364,0.825535815,0.825553409,0.825287654,0.825136323,0.825188045,0.825235589,0.825244998,0.825255911,0.825297388,0.825301524,0.825588288,0.82649319,0.826636322,0.826496951,0.826156236,0.825542508,0.82568707,0.825526696,0.825182878,0.825527026,0.826200859,0.825622813,0.826157546,0.82762217,0.82799298,0.826908555,0.826587063,0.827115507,0.827201262,0.826407797,0.826051574,0.827461886,0.830005734,0.829995822,0.826604839,0.825227062,0.827343805,0.829925341,0.830466228,0.829064411,0.827211313,0.827323509,0.830296228,0.832856175,0.831277732\nSRI-0000670.txt,NC1=CC=C(\\N=N\\C2=CC=CC=C2)C(N)=N1,0.335031426,0.333802038,0.333571527,0.334877753,0.337643877,0.341485716,0.347248475,0.352703886,0.360080218,0.367840733,0.375524411,0.382747069,0.390507584,0.397960752,0.403954021,0.409102085,0.414557497,0.417784642,0.420089745,0.421626481,0.420627603,0.417861479,0.413020761,0.406028614,0.39703871,0.386158622,0.373303828,0.358866196,0.342707421,0.325311573,0.306770857,0.286885498,0.266285556,0.245124706,0.224570867,0.204332058,0.18530727,0.167496504,0.15121479,0.134948443,0.11981928,0.105274077,0.091988997,0.080202234,0.070274922,0.061553947,0.053877952,0.045979131,0.038449126,0.031341724,0.024849016,0.019777788,0.015951316,0.012716488,0.011102915,0.009996466,0.009389455,0.009005271,0.00875171,0.008559618,0.008229219,0.007522321,0.006892259,0.006315984,0.005539932,0.004564105,0.003849523,0.003227145,0.002366573,0.001705777,0.000914358,0.000637745,0.000361133,0,0.000622378,0.001083399,0.001867134,0.002912114,0.004103084,0.006062422,0.007906505,0.010396017,0.012954682,0.01589753,0.019639482,0.022920412,0.027046548,0.031656755,0.035959615,0.040723495,0.045856192,0.051058043,0.05627526,0.061776774,0.067209134,0.072941158,0.078596346,0.084174696,0.089553271,0.094816591,0.100126012,0.105204924,0.110222366,0.11470195,0.119227637,0.123238517,0.127380019,0.130799256,0.134118605,0.137107556,0.139712323,0.142355508,0.144691347,0.147188542,0.149532064,0.152013892,0.154864537,0.157776651,0.161357245,0.164914788,0.169133127,0.17417362,0.179905644,0.186321516,0.194274123,0.203018149,0.212830206,0.223126335,0.234236934,0.245047869,0.256888418,0.269973722,0.284234629,0.300047639,0.316867211,0.335407926,0.354156102,0.374702257,0.396070567,0.418068938,0.44119681,0.465008529,0.48915833,0.513907458,0.538948565,0.563090683,0.580232969,0.590475312,0.603721974,0.631344797,0.665099196,0.697132451,0.722227345,0.739400366,0.752293578,0.762966207,0.775144837,0.787277365,0.800862109,0.816652068,0.833125874,0.853449203,0.8767538,0.903746562,0.930516497,0.952568654,0.966875663,0.976756873,0.985285756,0.99116377,0.99584313,0.998263489,0.999800224,1,0.999369938,0.996995682,0.994813517,0.991870668,0.987951992,0.984363715,0.9803221\nSRI-1053318-001.txt,OC(=O)CCc1ccc(cc1)S(=O)(=O)NC1CCCC1,0.679646832,0.726153519,0.773132355,0.81798652,0.862132461,0.902265135,0.935669684,0.964588817,0.985009266,0.996812994,1,0.992681689,0.975566284,0.948771822,0.914777087,0.870158996,0.819048856,0.762745075,0.702191952,0.637389488,0.571878799,0.506722223,0.442746019,0.381956822,0.325653041,0.274424863,0.230042848,0.192743068,0.161699265,0.136793399,0.117022156,0.10129959,0.089295199,0.080902749,0.074422503,0.069960694,0.067304855,0.065699548,0.064271297,0.06285485,0.060871823,0.059124872,0.059077657,0.060222618,0.061922355,0.061650869,0.059892114,0.057684817,0.054615848,0.052420354,0.050720618,0.048147405,0.044759735,0.041584532,0.03910575,0.03803161,0.036355481,0.033333727,0.028210909,0.022946446,0.018685301,0.016206518,0.014034632,0.012641792,0.011650279,0.010623355,0.010528925,0.009773486,0.009159693,0.009596431,0.008935422,0.007932105,0.008215394,0.007448152,0.007589797,0.006739928,0.005937275,0.006114331,0.005783827,0.005937275,0.005134622,0.005205444,0.0038008,0.00417852,0.003918838,0.003434885,0.002962736,0.002868306,0.00278568,0.002301727,0.001451858,0.001381036,0.00050756,0.000354112,0.001050532,0.000625598,0.000519364,0.000483953,0.000672812,0.000224271,0.000672812,0.000578383,0.000684616,0.000566579,0.00041313,0.000566579,0.000495757,0.000991513,0.000991513,0.00060199,0.000672812,0.000672812,0.000661009,0.00060199,0.00018886,0.00088528,0.000661009,0.000897083,0.001097747,0.000767242,0.000743635,0.000767242,0.000377719,0.00060199,0.000802653,0.000967906,0.000967906,0.000637401,0.000590186,0.000720027,0.000932494,0.000814457,0.000873476,0.000424934,0.000613794,0.00088528,0.000802653,0.000637401,0.000401327,0.000743635,0.000838065,0.001144962,0.001085943,0.000495757,0.000436738,0.000519364,0.000613794,0.000637401,0.000578383,0.000495757,0.000389523,0.000306897,0.000283289,0.000259682,0.000236075,0.000224271,0.000236075,0.000236075,0.000236075,0.000224271,0.000200663,0.00018886,0.000153448,0.000129841,0.000200663,0.000389523,0.000401327,0.00069642,0.000460345,0.000519364,0.000283289,0,0.000283289,0.000944298,0.001062335,0.000389523,0.000401327,0.000330504,0.001003317,0.000861672,0.000826261\nSRI-1052890-001.txt,C[C@H](NC(=O)[C@@H](C)n1cnc2ccccc2c1=O)C(=O)NCCc1c[nH]c2ccccc12,0.960949888,0.980393927,0.994004755,1,0.996689884,0.981597606,0.952848205,0.911668507,0.859817735,0.801346731,0.741880377,0.683826031,0.627854975,0.573041302,0.520079443,0.468575886,0.419433391,0.374758396,0.334504605,0.298741461,0.267839327,0.240293605,0.216034851,0.194692703,0.176637524,0.161452655,0.149369573,0.140156802,0.133550458,0.129131569,0.126821432,0.126481161,0.127576046,0.13011303,0.133455553,0.137578152,0.142140557,0.146869625,0.151714432,0.156501369,0.161647095,0.167563639,0.174355164,0.181822601,0.189658086,0.197396351,0.204088341,0.209143791,0.212180765,0.21342148,0.213671474,0.21401406,0.214942281,0.216412158,0.217979255,0.219113491,0.219252377,0.21787972,0.214273314,0.208384548,0.200817576,0.192026092,0.183109611,0.174431551,0.166144687,0.158140224,0.150279277,0.143552565,0.13899016,0.136573544,0.135846707,0.135152277,0.13269168,0.12729133,0.119740561,0.111435178,0.103264052,0.09619244,0.090699499,0.086317646,0.083306135,0.081202012,0.079692784,0.078100225,0.076264615,0.073563282,0.07010965,0.066278712,0.06227648,0.058730258,0.055971056,0.053998875,0.052994266,0.052813715,0.053024358,0.05305908,0.052538257,0.050644778,0.04725596,0.042267638,0.036297855,0.029823453,0.023714784,0.018337581,0.014048318,0.010703481,0.008228995,0.006516068,0.005078598,0.004198987,0.003641128,0.003108732,0.002652723,0.00237958,0.002194399,0.001833295,0.001578671,0.001428211,0.001233771,0.001143495,0.001032386,0.000803224,0.000842575,0.000668968,0.0005486,0.000604154,0.000581006,0.000416658,0.000370363,0.000437491,0.000479157,0.000395825,0.000374992,0.00024305,0.000115738,0.000180552,0.000240736,0.000180552,0.000173607,0.000245365,0.000222218,0.000203699,0.000162034,0.000201385,0.000134256,0.000166663,0.000162034,0.000148145,0.000143516,0.000148145,0.000152775,0.000148145,0.000138886,0.000129627,0.000120368,0.000111109,9.95E-05,8.8E-05,7.64E-05,7.18E-05,6.71E-05,5.79E-05,5.56E-05,5.79E-05,5.32E-05,5.32E-05,5.56E-05,0.000127312,6.48E-05,0.000192126,0.000189811,0.000104164,0,7.87E-05,5.79E-05,0.000143516,0.000108794,7.41E-05,6.25E-05,8.8E-05,1.62E-05\nSRI-0000458.txt,[O-][N+](=O)C1=CC=C(S1)\\C=N\\N1C=NNC1=O,1,0.962186318,0.934685459,0.9071846,0.862495703,0.841870058,0.807493984,0.762805088,0.728429013,0.707803369,0.683740117,0.663114472,0.645926435,0.625300791,0.621863183,0.587487109,0.587487109,0.570299072,0.5647989,0.553798556,0.548642145,0.542798212,0.537641801,0.527328979,0.502921966,0.49535923,0.479889997,0.452389137,0.448264008,0.432107253,0.415606738,0.409419044,0.381574424,0.364042626,0.353042283,0.345823307,0.337573049,0.324510141,0.315228601,0.304572018,0.316603644,0.292540392,0.267789618,0.260226882,0.270539704,0.266758336,0.250601581,0.251976624,0.259539361,0.254039189,0.244070127,0.252664146,0.248539017,0.260570643,0.247507735,0.253351667,0.265383293,0.266758336,0.266414575,0.283946373,0.302853214,0.310759711,0.32863527,0.336885528,0.364730148,0.376418013,0.400481265,0.422138192,0.438294947,0.463389481,0.482640083,0.501890684,0.518047439,0.543141973,0.581299416,0.597456171,0.613269165,0.636301134,0.645238914,0.678927466,0.700584393,0.724303884,0.748710897,0.770367824,0.781368168,0.793399794,0.809556549,0.817119285,0.834651083,0.854245445,0.860776899,0.876246133,0.898590581,0.912684771,0.926778962,0.922310072,0.941560674,0.940873152,0.934685459,0.963217601,0.961842558,0.979030595,0.984874527,0.973186662,0.976280509,0.986593331,0.983843245,0.98624957,0.977655552,0.961842558,0.968717772,0.98143692,0.952217257,0.963561361,0.942935717,0.926435201,0.913028532,0.885871433,0.888277759,0.890340323,0.872808525,0.83327604,0.825713304,0.818150567,0.797868683,0.78239945,0.759023719,0.733241664,0.723960124,0.691302853,0.669989687,0.64833276,0.633894809,0.609831557,0.588518391,0.563423857,0.533860433,0.52767274,0.511859746,0.496734273,0.470264696,0.444138879,0.432451014,0.420075627,0.405981437,0.394293572,0.387418357,0.377449295,0.36094878,0.337573049,0.316947405,0.297009282,0.280852527,0.269852183,0.261601925,0.25472671,0.247851495,0.240288759,0.233757305,0.226194569,0.217256789,0.206943967,0.194912341,0.179443108,0.162942592,0.146442076,0.134754211,0.113097284,0.111722241,0.101409419,0.089034032,0.085252664,0.075283603,0.059814369,0.047438982,0.045032657,0.049845308,0.044001375,0.023719491,0.018906841,0\nSRI-0000100.txt,CN(C)CC1=CNC2=C(C=CC=C12)[N+]([O-])=O,1,0.960469308,0.935327788,0.921571108,0.91540432,0.916827425,0.923784827,0.935011543,0.94971696,0.963948009,0.976755953,0.985294583,0.990987002,0.990038266,0.983871478,0.972644761,0.956358116,0.936434648,0.914613706,0.892128649,0.869058537,0.847996585,0.829195788,0.813146327,0.797033617,0.78281838,0.769124949,0.75524177,0.741042345,0.727285665,0.712627684,0.695566238,0.675089339,0.651244426,0.624505866,0.594114671,0.562822175,0.531624553,0.5009013,0.469909238,0.440261219,0.411625186,0.38352677,0.355918535,0.328199614,0.300717877,0.273884444,0.247493754,0.222209924,0.19662566,0.173017931,0.151070491,0.130008539,0.11078081,0.092659941,0.076926726,0.063407229,0.05097878,0.039404193,0.030248885,0.023070112,0.016587078,0.012048955,0.007131337,0.003352203,0.001881661,0.00034787,0,0.000822238,0.001533791,0.002593213,0.005391986,0.007495019,0.010673287,0.014357547,0.017883685,0.021836754,0.026975744,0.032383543,0.037253724,0.043294013,0.049840296,0.056987445,0.064229468,0.071139433,0.079551564,0.088643623,0.097435249,0.10640081,0.116236046,0.126261029,0.136918504,0.148477278,0.159798868,0.171278581,0.183786092,0.196119667,0.209133171,0.222652668,0.236377724,0.250703646,0.265061194,0.279418741,0.294298093,0.309572752,0.325337592,0.341102432,0.355792037,0.372489801,0.388191392,0.404683596,0.421333924,0.436782518,0.454065336,0.469450682,0.486512128,0.502798773,0.518421302,0.534850258,0.551089466,0.566632934,0.580863983,0.596897631,0.612219727,0.626782834,0.641330129,0.65522912,0.668163562,0.680433889,0.692862338,0.703772809,0.714793966,0.725419816,0.733658012,0.743635559,0.75274343,0.75947946,0.766674046,0.772761772,0.777837513,0.782691882,0.785285095,0.789380475,0.791610006,0.792416432,0.792843364,0.792321558,0.791783941,0.78934885,0.783703868,0.776256285,0.768840328,0.762183359,0.756506752,0.751162202,0.745928339,0.740330793,0.733737073,0.72586256,0.716659815,0.705401474,0.692909775,0.677540242,0.658533886,0.636459948,0.614955251,0.595996332,0.579235318,0.56125676,0.543863255,0.52528383,0.50673603,0.488409601,0.469403245,0.450523386,0.43221277,0.414661143,0.394674425,0.376964675,0.358764745,0.341307992\nSRI-0000672.txt,FC1=CC=C(C=C1)N1CCNCC1,0.738648876,0.760023318,0.78269318,0.807630028,0.834510007,0.859446855,0.884383704,0.908672842,0.933933545,0.953041,0.969233759,0.985426517,0.992875186,0.998704579,1,0.995336486,0.986365697,0.972180841,0.955728998,0.931698944,0.905401904,0.873534555,0.840371786,0.804909644,0.766953818,0.726148067,0.684144051,0.640358832,0.596379299,0.551784442,0.507124814,0.464537859,0.423116782,0.382149103,0.344938144,0.309022605,0.276248462,0.247425351,0.221516938,0.19816698,0.178606127,0.162769609,0.150139258,0.13993782,0.13213291,0.125720578,0.122449641,0.118692921,0.119146318,0.120927521,0.122643954,0.124587085,0.128732431,0.132651078,0.136051558,0.140488374,0.144568949,0.148001814,0.152697714,0.15749077,0.161636116,0.162607682,0.16529568,0.167206425,0.168534231,0.168566617,0.167368353,0.168339918,0.165554764,0.162445754,0.160437852,0.158494721,0.151758534,0.147095019,0.143986009,0.13935488,0.132683464,0.127598938,0.121283762,0.114482803,0.109430663,0.102953559,0.097059395,0.091780556,0.085271067,0.07859965,0.072932185,0.066940864,0.062180193,0.057905305,0.052982706,0.046602759,0.042619341,0.038959777,0.035721225,0.032806529,0.029146965,0.025681715,0.025195932,0.021277285,0.018848371,0.01755295,0.015447892,0.013731459,0.01250081,0.010719606,0.008776475,0.00910033,0.008225921,0.006120863,0.004954984,0.004210117,0.004145346,0.003432865,0.002428914,0.002623227,0.002299372,0.002299372,0.002299372,0.003173781,0.002882311,0.002590841,0.002396528,0.002428914,0.002687998,0.001684047,0.002752769,0.002007902,0.001845974,0.003238552,0.001910746,0.002137444,0.003400479,0.00158689,0.002364143,0.001133493,0.003270937,0.00123065,9.72E-05,0.001554505,0.00123065,0.00123065,0.001424963,0.001424963,0.00123065,0.001198264,0.001165879,0.001036337,0.001198264,0.001003951,0.000680096,0.000582939,0.000485783,0.000388626,0.000356241,0.000453397,0.000485783,0.000550554,0.00064771,0.000712481,0.000744867,0.000809638,0.00093918,0.001101108,0.001133493,0.001003951,0.000485783,0.00158689,0.001910746,0.001360192,0.00093918,0.001813589,0.000323855,0.000518168,0.00158689,0.002914697,0.001263035,0,0.000842023,6.48E-05,0.001554505\nSRI-1052941-001.txt,OC(=O)CC(CNC(=O)CCn1nnc2ccccc2c1=O)c1ccc(Cl)cc1,0.999007014,1,0.997186539,0.989540545,0.975671838,0.953428947,0.920296307,0.877796497,0.828445083,0.77608161,0.725604811,0.679298555,0.63570646,0.592875655,0.548753968,0.502712507,0.455578762,0.409073908,0.366077605,0.327649039,0.295244589,0.268467061,0.24691926,0.229839898,0.216533882,0.205644134,0.19654176,0.188399273,0.180859198,0.173716317,0.167116269,0.161035883,0.155958414,0.151562795,0.14756768,0.143840672,0.139815768,0.135440009,0.131087419,0.126943357,0.123656572,0.121144317,0.119833576,0.120068582,0.121779828,0.124633009,0.128790311,0.133665873,0.138908841,0.144502663,0.150202404,0.156084192,0.162118238,0.168264823,0.174825152,0.181567528,0.188333074,0.19440353,0.199596848,0.204048736,0.208123289,0.211919806,0.215332369,0.218559574,0.220959291,0.222653987,0.223736342,0.224438053,0.224097127,0.223478166,0.222220383,0.219860386,0.216785439,0.213386116,0.209357902,0.205409127,0.201367673,0.198193427,0.195403136,0.19292398,0.190858569,0.188505192,0.185605672,0.181637037,0.176427169,0.170290515,0.163601098,0.156315889,0.149504003,0.143129032,0.137889375,0.13390088,0.131206578,0.129783297,0.128704252,0.126930117,0.123411636,0.117632456,0.109254962,0.099156293,0.088005058,0.076430148,0.065186235,0.055097495,0.04606794,0.038263069,0.031934436,0.026555761,0.022153522,0.018595322,0.015550164,0.013306015,0.011399482,0.009681616,0.008225236,0.007238869,0.006583499,0.005487904,0.004809363,0.004362519,0.003750178,0.003468832,0.002992198,0.002528805,0.002449366,0.002230909,0.001896604,0.001711246,0.001525889,0.001396801,0.001055875,0.001122074,0.000764599,0.00071495,0.00073481,0.000652061,0.000628891,0.000383955,0.000417054,0.000460084,0.000301206,0.000337615,0.000271416,0.000271416,0.000304516,0.000357475,0.000344235,0.000301206,0.000235007,0.000168808,0.000115848,9.27E-05,7.61E-05,7.94E-05,0.000105919,0.000125778,0.000145638,0.000165498,0.000185357,0.000201907,0.000215147,0.000221767,0.000231697,0.000228387,0.000208527,0.000195287,0.000264796,0.000235007,4.96E-05,0,0.000201907,0.000274726,0.000317756,7.94E-05,0.000152258,5.3E-05,7.28E-05,0.000248247,0.000221767,0.000321066,0.000218457\nSRI-0000712.txt,COC(=O)C1=CC2=CC=C(Cl)C=C2C2=NC=CC=C12,0.398485869,0.416523866,0.437214509,0.460557799,0.485492676,0.511223348,0.536954019,0.562684691,0.588680627,0.614941827,0.642264087,0.67038214,0.700091782,0.731658275,0.765346887,0.799035498,0.833254638,0.864927238,0.892116865,0.913815514,0.929731393,0.941747882,0.952411521,0.96434843,0.977691243,0.991511531,1,0.994853866,0.968751824,0.919837021,0.852141482,0.776938952,0.704601281,0.64051334,0.588468415,0.547697238,0.517029991,0.495280942,0.481534927,0.475356914,0.475908664,0.483023062,0.496095304,0.513151822,0.53249492,0.551708039,0.568180974,0.581433596,0.591739128,0.601049918,0.609758556,0.617215146,0.620435458,0.614039928,0.594996578,0.563087893,0.521420121,0.475539946,0.430643903,0.390480182,0.356948077,0.330846035,0.310699185,0.295579099,0.283926023,0.274453422,0.266169207,0.259545549,0.254272087,0.250866089,0.249401828,0.250017242,0.252502772,0.256640901,0.262084131,0.268118902,0.274166936,0.279790547,0.28477487,0.289027062,0.292486113,0.295687858,0.298340504,0.300523632,0.30273594,0.304322222,0.30519229,0.304751951,0.302412317,0.297170687,0.289045631,0.277801062,0.26381631,0.246860593,0.228000276,0.207378602,0.185828501,0.164586108,0.144956523,0.127764721,0.113199039,0.100848316,0.089998992,0.079759776,0.070350839,0.06191277,0.055164438,0.049991777,0.046511505,0.044015364,0.042779231,0.042712915,0.044267366,0.047384225,0.052082062,0.057482851,0.062029487,0.064159562,0.063079935,0.059180544,0.053458786,0.04768928,0.042832284,0.039481991,0.037792255,0.036911577,0.037017683,0.038036299,0.040516523,0.045386782,0.052193473,0.060101013,0.067387833,0.072144028,0.072780663,0.068533776,0.060302614,0.049394931,0.037956719,0.027428365,0.019099055,0.01275923,0.008546827,0.005750938,0.004061202,0.00316726,0.002740184,0.002581025,0.002408603,0.002058454,0.001612809,0.001214912,0.000970869,0.000819668,0.000718867,0.00064194,0.000578277,0.000514613,0.000456255,0.000397897,0.000342191,0.000281181,0.000222822,0.000175075,0.00014059,0.000124674,0.000114064,7.16E-05,0.000167117,6.63E-05,6.9E-05,5.31E-05,8.22E-05,8.49E-05,0,7.69E-05,1.06E-05,6.9E-05,2.39E-05,0.000103453,4.77E-05\nSRI-0000538.txt,CC(=O)NC(NC(C)=O)C1=C(C=CC=C1)[N+]([O-])=O,1,0.946836326,0.898901865,0.849224333,0.805647551,0.762070769,0.722851665,0.685375632,0.648771135,0.613038173,0.582534426,0.549416071,0.52518738,0.504270525,0.489454419,0.469060485,0.454592993,0.442914415,0.432978909,0.427749695,0.424612167,0.42321771,0.419731567,0.421736099,0.426093777,0.429754227,0.43080007,0.437075126,0.447359247,0.456161757,0.464877113,0.475161234,0.482046366,0.493376329,0.503747603,0.509586892,0.518738016,0.528760676,0.536953111,0.545755621,0.549503225,0.551507757,0.558567195,0.560484574,0.565016559,0.566323863,0.566149556,0.563360641,0.561530417,0.560658881,0.554819592,0.545581314,0.541746557,0.533641276,0.524664459,0.516559177,0.508628203,0.495555168,0.488931497,0.476642845,0.468537563,0.453982918,0.443873104,0.434286212,0.422346174,0.412410668,0.402475161,0.388443437,0.378769392,0.366655046,0.356370926,0.344953809,0.338678752,0.331270699,0.317587589,0.310005229,0.299285341,0.292400209,0.284120621,0.272267736,0.266341293,0.258758933,0.248387659,0.240892453,0.238364999,0.229213875,0.2212829,0.212131776,0.205420952,0.199843124,0.194439603,0.183981175,0.178316193,0.175701586,0.16724769,0.161669862,0.156179188,0.148683981,0.143629074,0.142234617,0.134565104,0.125239672,0.126982744,0.121579223,0.117744466,0.10929057,0.109552031,0.107198884,0.100749521,0.096653303,0.099442217,0.091336936,0.087850793,0.08654349,0.083057347,0.084277497,0.079919819,0.077566672,0.074167683,0.073470455,0.073557609,0.070071466,0.065452327,0.067195398,0.066672477,0.063099181,0.059264424,0.06161757,0.056388356,0.053250828,0.052902214,0.056126896,0.052640753,0.052553599,0.046888618,0.045145546,0.040962175,0.04131079,0.038609029,0.038173261,0.037824647,0.040962175,0.035471501,0.032421126,0.031375283,0.029022137,0.028150601,0.027889141,0.027279066,0.025535994,0.023444309,0.021439777,0.019783859,0.018563709,0.017953634,0.017256406,0.016733484,0.016210563,0.015774795,0.01516472,0.014554645,0.01368311,0.012898728,0.012027192,0.010807042,0.008889664,0.008192435,0.007320899,0.009063971,0.006449364,0.006623671,0.007059439,0.003224682,0.00122015,0.003747603,0.000348614,0.004531985,0.00610075,0.001568764,0,0.002876068\nSRI-0000510.txt,OC1=NC=CC=N1,1,0.934554974,0.869109948,0.738219895,0.738219895,0.607329843,0.476439791,0.345549738,0.280104712,0.214659686,0.14921466,0.083769634,0.14921466,0.109947644,0.103403141,0.090314136,0.096858639,0.077225131,0.077225131,0.090314136,0.077225131,0.077225131,0.090314136,0.083769634,0.090314136,0.090314136,0.090314136,0.103403141,0.096858639,0.116492147,0.129581152,0.129581152,0.162303665,0.152486911,0.186518325,0.183900524,0.198298429,0.219240838,0.22513089,0.236910995,0.242146597,0.219240838,0.202879581,0.212696335,0.198298429,0.227094241,0.221204188,0.212041885,0.188481675,0.190445026,0.178010471,0.170811518,0.147905759,0.157068063,0.143979058,0.132198953,0.12434555,0.106020942,0.10078534,0.07591623,0.071989529,0.077879581,0.094240838,0.053664921,0.092277487,0.090968586,0.066099476,0.081151832,0.098167539,0.080497382,0.086387435,0.088350785,0.082460733,0.087696335,0.083769634,0.080497382,0.080497382,0.07526178,0.079842932,0.085078534,0.085732984,0.098167539,0.10078534,0.102748691,0.07395288,0.068062827,0.055628272,0.038612565,0.036649215,0.042539267,0.037958115,0.072643979,0.060863874,0.054319372,0.056282723,0.039921466,0.045811518,0.034031414,0.00065445,0.041884817,0.02486911,0.054319372,0.036649215,0.014397906,0.047120419,0.057591623,0.046465969,0.046465969,0.053010471,0.066753927,0.031413613,0.041230366,0.026832461,0.028795812,0.053010471,0.052356021,0.029450262,0.02486911,0.062827225,0.044502618,0.065445026,0.073298429,0.047120419,0.043848168,0.087696335,0.062827225,0.065445026,0.055628272,0.067408377,0.039267016,0.02617801,0.058900524,0.015052356,0.017015707,0.039921466,0.037303665,0.039921466,0.02617801,0.039921466,0.028795812,0.035994764,0.030104712,0.04908377,0.047120419,0.035340314,0.036649215,0.037303665,0.039921466,0.041230366,0.040575916,0.038612565,0.036649215,0.034031414,0.032068063,0.031413613,0.032722513,0.032068063,0.033376963,0.035340314,0.036649215,0.038612565,0.039921466,0.039921466,0.036649215,0.031413613,0.026832461,0.02617801,0.058900524,0.035994764,0.039921466,0.032068063,0,0.002617801,0.028141361,0.055628272,0.026832461,0.02421466,0.05104712,0.039267016,0.041884817,0.041884817\nSRI-003073.txt,CC1=N\\C(=C/C2=CC(=CC=C2)C#N)C(=O)O1,0.896831804,0.920915006,0.940456999,0.953930227,0.96626612,0.979271082,0.991899641,0.995849826,1,0.999965043,0.997791181,0.991909397,0.983126963,0.970634168,0.95328067,0.932990751,0.899552789,0.856694218,0.796904889,0.753648779,0.713878652,0.673306132,0.638061767,0.606728566,0.579087027,0.554731483,0.533913138,0.516551511,0.503109175,0.493865791,0.488815668,0.488147413,0.491419587,0.496209562,0.502824638,0.513761423,0.526592411,0.540607885,0.555442825,0.5708005,0.586069562,0.601339437,0.616323962,0.631192234,0.645757271,0.659992244,0.674512568,0.685005475,0.695521959,0.709052094,0.723105777,0.736459499,0.751048112,0.759778516,0.76378317,0.764771732,0.765054643,0.756930709,0.748424682,0.738517108,0.731602861,0.722605805,0.710927598,0.697976292,0.684677038,0.6699112,0.654178749,0.638165014,0.620952158,0.603197056,0.584929788,0.565713793,0.545907587,0.535781326,0.515305239,0.494313734,0.47301818,0.451691734,0.430232776,0.408825846,0.387660367,0.366554234,0.34577166,0.325380934,0.305409697,0.295730565,0.276868208,0.258733453,0.241351501,0.224598783,0.208434649,0.192789185,0.177578656,0.162797372,0.148398179,0.134456685,0.124394648,0.114700883,0.102425961,0.09095506,0.080327201,0.070583032,0.061688409,0.053658778,0.04646406,0.040067671,0.034377746,0.030476339,0.027085472,0.023186504,0.019811084,0.0167202,0.014069129,0.011696905,0.00978563,0.008181655,0.006932944,0.005885849,0.005118412,0.004598116,0.003962379,0.00341932,0.002919348,0.002554328,0.002267352,0.002008017,0.001786079,0.001552758,0.001437318,0.001390166,0.001229199,0.001168227,0.001011325,0.000930842,0.000859301,0.000802394,0.000783696,0.000656061,0.000647118,0.000593463,0.000565009,0.000521922,0.000465015,0.000411359,0.000385344,0.000352826,0.000326811,0.000319494,0.000310552,0.000291854,0.000294292,0.000261774,0.0003073,0.000231694,0.000223565,0.00024145,0.000265026,0.000245515,0.000226817,0.000257709,0.000258522,0.000180478,0.000258522,0.000215435,0.000226004,0.000166657,0.000188607,0.000147146,0.000178039,0.000126822,0.000163405,0.000155276,0.000160154,0.000169909,7.4E-05,0.00016747,6.42E-05,0.000113815,0.000176413,0,0.000126822\nSRI-0000263.txt,SC(C1=NC2=C(N1)C=CC(Cl)=C2)C1=CC=CC=C1,0.975142928,0.962714392,0.962714392,0.975142928,1,0.987571464,1,1,1,1,0.975142928,0.962714392,0.93785732,0.913000249,0.875714641,0.84091474,0.799900572,0.75764355,0.706686552,0.650758141,0.599801143,0.537658464,0.479244345,0.419587373,0.367387522,0.320159085,0.277902063,0.243102163,0.218245091,0.189659458,0.167288093,0.147402436,0.136216754,0.125031071,0.115212528,0.104151131,0.09159831,0.092965449,0.085508327,0.080536913,0.071464082,0.07283122,0.067735521,0.059284116,0.054312702,0.056549838,0.051578424,0.051205568,0.047352722,0.046109868,0.04337559,0.042008451,0.043002734,0.044494159,0.043872732,0.042381307,0.042257022,0.03803132,0.033432762,0.033805618,0.032189908,0.030325628,0.029082774,0.025727069,0.025727069,0.017648521,0.010564256,0.010564256,0.008078548,0.007332836,0.007829978,0.011061397,0.010191399,0.014168531,0.014665672,0.015784241,0.008451404,0.010564256,0.014292816,0.003977131,0.004349988,0.008078548,0.009197117,0.002982849,0.002734278,0.011185682,0.006462839,0,0.007705692,0.012428536,0.009321402,0.011807109,0.014789958,0.021501367,0.026472782,0.033805618,0.035172757,0.042629878,0.045115585,0.049714144,0.05356699,0.062764106,0.071588367,0.077305493,0.080536913,0.086999751,0.097315436,0.107631121,0.112353965,0.12639821,0.132612478,0.141436739,0.159706687,0.164926672,0.180213771,0.184190902,0.193263734,0.205070843,0.221352225,0.227193637,0.237882177,0.245463584,0.258016406,0.26298782,0.276783495,0.288342033,0.300024857,0.306239125,0.302510564,0.318916232,0.325503356,0.329480487,0.344270445,0.348371862,0.347750435,0.34949043,0.359681829,0.3650261,0.37037037,0.37360179,0.373726075,0.379194631,0.385284613,0.387770321,0.389261745,0.393736018,0.395973154,0.39448173,0.392741735,0.394854586,0.398334576,0.401814566,0.405045986,0.407780263,0.410265971,0.412503107,0.414615958,0.416853095,0.419090231,0.421575938,0.424434502,0.42741735,0.43089734,0.434625901,0.437981606,0.442455879,0.44643301,0.444444444,0.448421576,0.451155854,0.452522993,0.452150137,0.445563013,0.45152871,0.442455879,0.443450162,0.442828735,0.436987323,0.433383047,0.431643052,0.421575938\nSRI-0000075.txt,ClC1=CC=C(NC(=N)NC(=N)NCCCCCCNC(=N)NC(=N)NC2=CC=C(Cl)C=C2)C=C1,0.808710093,0.801654896,0.799701149,0.802161423,0.808022663,0.8164889,0.826908883,0.837907754,0.848400098,0.857626125,0.864681322,0.868624996,0.869855133,0.868480274,0.86450042,0.858892443,0.852633217,0.84630163,0.84051275,0.835592202,0.832842485,0.831937972,0.833168109,0.837003242,0.842502677,0.850462387,0.859883788,0.871551999,0.884258589,0.897945671,0.912247822,0.926886451,0.941452719,0.954835885,0.967538858,0.978541347,0.987770992,0.994229211,0.99883137,1,0.99814394,0.99300631,0.984044401,0.97178283,0.955932154,0.93729558,0.915059047,0.88984124,0.862427277,0.832310631,0.800345162,0.767185736,0.732199195,0.696431156,0.659982923,0.623169267,0.586384555,0.550023156,0.514059741,0.479286665,0.445280616,0.412653044,0.381208573,0.351663579,0.323826305,0.297573736,0.272612811,0.249030363,0.226692524,0.20547628,0.185160931,0.165847781,0.148086775,0.131671684,0.116848534,0.103309792,0.090874555,0.07941981,0.069007062,0.059325161,0.050518828,0.042776202,0.036043011,0.0301275,0.025290168,0.021114938,0.017547541,0.014714608,0.012431619,0.010260789,0.008618194,0.00730846,0.006194101,0.005318533,0.004558743,0.0037483,0.0032273,0.002803989,0.002492836,0.002217864,0.00187415,0.001707719,0.001537671,0.00128079,0.001288026,0.001121595,0.001031144,0.001060089,0.001045616,0.000850242,0.000868332,0.000861096,0.000709138,0.000636777,0.000799589,0.000719992,0.000452256,0.000560798,0.000452256,0.000416076,0.000488437,0.000644013,0.00040884,0.000528235,0.000492055,0.000455874,0.00046311,0.000531853,0.00029668,0.000448638,0.000430548,0.000303916,0.000459492,0.000329243,0.000227937,0.000311152,0.000293062,0.000329243,0.000347333,0.000123014,0.000318388,0.000350951,0.000311152,0.000235173,0.000224319,0.000213465,0.000227937,0.000227937,0.000235173,0.000227937,0.000238791,0.000238791,0.000231555,0.000217083,0.000202611,0.000184521,0.000170048,0.000155576,0.000141104,0.000126632,0.000119396,0.000108541,0.000108541,0.000115778,0.000108541,0.000108541,0.000137486,6.51E-05,0.000151958,0.000217083,0.000285826,0.000325624,8.68E-05,3.98E-05,0,6.15E-05,0.000227937,0.00013025,0.000104923,0.000202611,3.26E-05\nSRI-1053373-001.txt,CCOC(=O)C(=O)NCCc1c[nH]c2ccccc12,0.98810465,0.999194776,1,0.988287655,0.962264289,0.919660635,0.858170825,0.779258901,0.687243792,0.587103244,0.488902553,0.398607695,0.319951979,0.254362848,0.202535723,0.162494144,0.132883872,0.111252635,0.095770379,0.084533849,0.076445011,0.07066204,0.066635922,0.063744437,0.061731377,0.060593084,0.060161191,0.060318576,0.060849291,0.06181556,0.063426007,0.065472007,0.067616831,0.070230148,0.073224116,0.076660957,0.080269823,0.084328883,0.088600228,0.093113141,0.098065267,0.103090595,0.108394091,0.113434059,0.118700955,0.12397883,0.129253045,0.134260073,0.139347622,0.144072822,0.148534493,0.152714336,0.15660137,0.160038212,0.162860155,0.165004978,0.166392159,0.16746823,0.168899332,0.170930692,0.173038914,0.174792106,0.175663212,0.175125176,0.172932771,0.168881032,0.163255446,0.157472476,0.153040086,0.150778139,0.149368997,0.146484833,0.140398073,0.129915525,0.116266983,0.101710734,0.087542457,0.074915086,0.064110447,0.054634428,0.046421147,0.039005768,0.033010512,0.027458128,0.022861033,0.018834914,0.015394413,0.012645672,0.010171439,0.008454849,0.006870022,0.005490162,0.004461671,0.003927296,0.003206254,0.002653578,0.002302208,0.001866655,0.00169463,0.001581167,0.001226136,0.000907707,0.000797903,0.000581957,0.000618558,0.000713721,0.000603918,0.000457513,0.000497775,0.000406272,0.00034771,0.000439213,0.000384311,0.000387971,0.000413592,0.000505095,0.000431893,0.000252547,0.000263528,0.000322089,0.00033673,0.000142744,0.000237907,0.000300129,0.00033307,0.000201306,0.000406272,0.000237907,0.000252547,0.000289149,0.000292809,0.000439213,0.000314769,0.000135424,0.000300129,0.000230587,0.000124444,0.000139084,0.00033673,0.000164705,0.000128104,0.00032941,0.000197646,0.000124444,6.59E-05,9.15E-05,0.000117123,9.88E-05,7.32E-05,5.86E-05,5.49E-05,5.86E-05,6.95E-05,7.32E-05,6.22E-05,5.49E-05,4.39E-05,3.29E-05,3.29E-05,2.93E-05,3.66E-05,4.03E-05,4.03E-05,3.66E-05,5.12E-05,0.000117123,0.000128104,0.000102483,0.000120784,0.000215946,0.000201306,0.000259868,0.000318429,0.000208626,0.000259868,0.000204966,0.000204966,0.000168365,0,0.000146404,0.000153725\nSRI-0000101.txt,O=C1CCC\\C1=N/NC1=CC=CC=C1,0.196112446,0.204063251,0.212458856,0.222411262,0.233586869,0.245374077,0.258273285,0.271450494,0.285183703,0.298638911,0.31287252,0.326994929,0.341228538,0.354906147,0.367972156,0.380037363,0.39026777,0.399775376,0.407058981,0.412618984,0.415843786,0.416622187,0.415565786,0.411451383,0.405224179,0.396606174,0.385486167,0.371975358,0.356323948,0.338559737,0.318955164,0.297949471,0.275375856,0.251434481,0.226981585,0.202044969,0.176463393,0.151543457,0.126962681,0.103493906,0.082516013,0.064218041,0.048321991,0.035756383,0.025348056,0.017497331,0.011542567,0.006838804,0.003708522,0.001423361,0.00048372,0,0,0.00068944,0.002101681,0.003853082,0.006716484,0.010152566,0.013805489,0.017730851,0.021839694,0.025803977,0.029495819,0.032904101,0.036512543,0.041010586,0.045725469,0.050735032,0.055694556,0.059597678,0.06225536,0.0631672,0.06309492,0.06306712,0.063367361,0.064913042,0.067848723,0.071813006,0.075471488,0.07829597,0.078913131,0.077083889,0.074331688,0.071301486,0.069466684,0.069644605,0.072024286,0.076722489,0.083639134,0.092107019,0.101792545,0.113235032,0.12541144,0.138544169,0.152633218,0.167417267,0.183224357,0.199459568,0.216573259,0.23448203,0.252780002,0.271750734,0.291572147,0.31183836,0.332560493,0.354061027,0.376228761,0.398524375,0.42150387,0.444655725,0.467774219,0.491837915,0.51573481,0.539854106,0.564323681,0.588203896,0.612723512,0.636520327,0.660628503,0.684847878,0.707871853,0.731040388,0.753725202,0.776243217,0.79737679,0.818260164,0.838076016,0.857497109,0.87523908,0.892174851,0.908132061,0.92253803,0.936376879,0.948347567,0.959356374,0.9691531,0.977949026,0.98504915,0.990898274,0.995546437,0.998087359,0.99968308,1,0.998042879,0.995335157,0.990686994,0.987445512,0.98487123,0.978938707,0.963993417,0.945706565,0.927786674,0.912602304,0.900014456,0.888766569,0.878119162,0.866876835,0.853927587,0.838698737,0.821729606,0.801374433,0.779334579,0.752229561,0.720559781,0.684836758,0.651276577,0.622720399,0.596126902,0.570334045,0.544741349,0.519104172,0.492949915,0.467690819,0.442109243,0.417850947,0.393837292,0.369801397,0.346104662,0.323225247,0.301063073,0.279923939\nSRI-0000317.txt,COC1=CC(CCC(=O)CNC2=C(C(N)=NC(N)=N2)[N+]([O-])=O)=CC(OC)=C1OC,1,0.969485226,0.943221949,0.919530141,0.897964082,0.877940904,0.858500593,0.840671736,0.823528605,0.806934054,0.790716651,0.775116402,0.759550439,0.744430197,0.72917281,0.713435415,0.697355158,0.679869164,0.661560299,0.640748538,0.618222463,0.593467781,0.566655924,0.537752604,0.507614979,0.476928774,0.446379714,0.416307232,0.387599344,0.359971474,0.334435065,0.310681542,0.288786335,0.26865687,0.250550295,0.234332892,0.219788659,0.207411319,0.196789434,0.187919578,0.180846322,0.175264519,0.170759304,0.167567253,0.16525293,0.163675762,0.162815176,0.16230774,0.16203345,0.161978592,0.162019735,0.161817446,0.161471155,0.16113515,0.160730572,0.160247135,0.159797985,0.159317978,0.158755683,0.157901955,0.156904225,0.155532774,0.154051608,0.152591013,0.151222991,0.150129259,0.149693824,0.149782968,0.150053829,0.150574981,0.151922431,0.153636744,0.156119069,0.159180833,0.16283232,0.166963814,0.171489601,0.176512538,0.181957197,0.187796148,0.194193964,0.201253506,0.208635338,0.216459463,0.224643594,0.233335162,0.242571881,0.252240607,0.262163052,0.272531218,0.283595395,0.294807003,0.306426617,0.318351379,0.33060529,0.34328435,0.356090269,0.369376196,0.382785553,0.396037194,0.40962484,0.422962196,0.437009278,0.450792356,0.464146855,0.477278494,0.490379275,0.502664043,0.514773951,0.526486138,0.537498886,0.547517332,0.556973483,0.565133614,0.572433159,0.578714402,0.58386077,0.587570544,0.590138585,0.591180887,0.590515734,0.588575131,0.584741927,0.579286983,0.571342856,0.561794132,0.550784813,0.538167468,0.52508383,0.511924762,0.498875411,0.483772312,0.467332049,0.448988898,0.429342869,0.409857986,0.389543376,0.368831044,0.347707278,0.326490938,0.305322599,0.28413026,0.263637361,0.243665613,0.224002441,0.206283301,0.194331109,0.187508143,0.177983419,0.159671126,0.139106226,0.120985936,0.10777201,0.098991298,0.092840343,0.087714546,0.082701895,0.077432096,0.071853721,0.065929055,0.059520952,0.052221407,0.044095563,0.035506854,0.027350152,0.021353485,0.01769514,0.015055098,0.012809348,0.011053891,0.009181861,0.007618408,0.006267529,0.005077796,0.004062922,0.003236623,0.002406896,0.001676598,0.000918872,0.000490294,0\nSRI-0000303.txt,S=C1NN=CN1C1=CC=CC=C1,1,0.959519057,0.918877157,0.87549897,0.830994077,0.787776848,0.744881535,0.704642029,0.667863121,0.634786248,0.606699073,0.583521118,0.565815735,0.552858614,0.543844965,0.540062452,0.539821015,0.543201133,0.550283286,0.560262683,0.573461241,0.589235127,0.607664821,0.62806625,0.650214074,0.673979526,0.699282127,0.725944824,0.753098442,0.780517641,0.807912696,0.833794746,0.858373036,0.880899112,0.901485643,0.918997875,0.933564576,0.944147566,0.950956091,0.953418748,0.952082797,0.947149433,0.936952743,0.923802472,0.907738862,0.887522534,0.864771118,0.839476565,0.81138939,0.781507533,0.750265581,0.717784252,0.683999163,0.649360997,0.614634303,0.579690317,0.54478657,0.509923062,0.475783866,0.44156419,0.408809233,0.3769154,0.346091939,0.316491759,0.2887265,0.261717744,0.236568053,0.21307623,0.19095255,0.170470641,0.151582217,0.134383853,0.11798223,0.104059361,0.091102241,0.079666173,0.069203902,0.059771762,0.0517641,0.044617564,0.038026333,0.032569856,0.027902073,0.023588398,0.020079513,0.016884497,0.014317216,0.011790175,0.009995493,0.008249099,0.00686486,0.005536956,0.005046034,0.004603399,0.003685939,0.002969676,0.002623616,0.002156837,0.002028071,0.001818826,0.00180273,0.001480814,0.001005988,0.0009577,0.000973796,0.000917461,0.000901365,0.000627736,0.000643832,0.000989892,0.000764551,0.000490922,0.000531161,0.000523114,0.000788694,0.000587497,0.000861125,0.000893317,0.001022083,0.000732359,0.00080479,0.001287664,0.000973796,0.000659928,0.000289724,0.000507018,0.000627736,0.000490922,0.000555305,0.00049897,0.000257533,0.000579449,0.000692119,0.000394347,0.000434587,0.000410443,0.000603593,0.000555305,0.000523114,0.000418491,0.000450682,0.000354108,0.000233389,0.000273629,0.000402395,0.000450682,0.000450682,0.000394347,0.000281677,0.000257533,0.000249485,0.000233389,0.000225341,0.000209245,0.00019315,0.000169006,0.00015291,0.000144862,0.00015291,0.00015291,0.000160958,0.000177054,0.000201198,0.000201198,0.000169006,0.000209245,0.000249485,0.000289724,0.000289724,0.000402395,0.000144862,0.000217293,0,0.000144862,4.83E-05,0.000281677,0.000450682,0.000169006,6.44E-05,0.000281677,4.83E-05\nSRI-0000465.txt,COC(=O)C1=CC2=CC=C(Cl)C=C2C2=C1C=CN=C2,0.357362943,0.366715682,0.378146807,0.390097528,0.404126636,0.419714534,0.436861221,0.455047101,0.473232982,0.491522782,0.509189066,0.526647511,0.54504123,0.564526102,0.586660916,0.610978037,0.637061785,0.664704324,0.692502741,0.720508997,0.747683898,0.776053872,0.805514998,0.836638834,0.869477338,0.903458954,0.936297459,0.964355674,0.985918933,0.997609856,1,0.994050619,0.983118307,0.970055649,0.95682672,0.944153759,0.931434035,0.916428085,0.895784513,0.869077248,0.834316237,0.792213326,0.744571515,0.693344487,0.641119835,0.588640579,0.53688876,0.487417969,0.440742607,0.397933045,0.360283076,0.327657607,0.299287633,0.274970513,0.254150278,0.236156648,0.221046779,0.208036081,0.196589368,0.187085946,0.179141315,0.17322311,0.169747008,0.16805832,0.167793325,0.167725778,0.167491959,0.166208556,0.163350774,0.159381057,0.154689099,0.150127041,0.145850761,0.14272279,0.141361447,0.141449778,0.142530539,0.144936271,0.148121399,0.152127488,0.156310241,0.160768379,0.165299262,0.169752204,0.173779078,0.177546153,0.181359992,0.184862073,0.188332978,0.191445362,0.194438238,0.197285627,0.19936921,0.200663005,0.201421616,0.201141034,0.200210956,0.198584619,0.196074967,0.193258754,0.189891768,0.186426059,0.182425165,0.178725637,0.17470396,0.170557579,0.166426786,0.163023429,0.159412232,0.156445336,0.153701866,0.151633871,0.149981554,0.148807266,0.148412373,0.148770894,0.149191768,0.149685384,0.150340076,0.150397232,0.149607445,0.148111007,0.146219675,0.143990606,0.141257528,0.138368571,0.135479614,0.132439974,0.129447097,0.126968622,0.124879843,0.123632811,0.122141569,0.121133552,0.120250238,0.118213419,0.115215347,0.110777992,0.104787043,0.097200933,0.088560042,0.079228087,0.070140343,0.061416316,0.053248258,0.046477915,0.042206831,0.03991541,0.037073216,0.031986366,0.026161688,0.020913763,0.017333742,0.015167024,0.013805681,0.012740508,0.011732491,0.01070369,0.009664496,0.008588932,0.007466603,0.006162416,0.004769897,0.003424141,0.002296617,0.00158477,0.001267816,0.001283404,0.000820963,0.000815767,0.000597536,0.000607928,0.000561164,0.000332542,0.000457245,0.000389697,0.000529989,0.000290974,0,0.000114311,0.000290974\nSRI-004863.txt,CCOC(=O)C1=CC(=O)C2=CC(C)=CC=C2N1,0.672829503,0.659364712,0.643543809,0.631678754,0.621290824,0.609619626,0.600963156,0.595068736,0.592559363,0.593164959,0.597422362,0.605166709,0.616143666,0.629566207,0.644159347,0.659063984,0.673399477,0.687155883,0.700399478,0.710409635,0.720626076,0.735060154,0.750683057,0.768006767,0.787589659,0.80980205,0.834846911,0.862330727,0.891592396,0.921211127,0.948916968,0.972462335,0.989892086,0.998035746,1,0.993316068,0.972902241,0.93760863,0.887891712,0.826892966,0.758390952,0.68699185,0.61609893,0.547978831,0.483903224,0.424548122,0.37023745,0.332790699,0.298641177,0.257501197,0.221483521,0.190442342,0.164080247,0.141920876,0.123517697,0.108428315,0.096128324,0.086234978,0.078396188,0.072219267,0.068488759,0.065507169,0.062415395,0.060179409,0.058639321,0.057733826,0.05735191,0.057427299,0.057914428,0.058684057,0.059703879,0.060849625,0.062031822,0.062604281,0.063645642,0.06445918,0.065013413,0.065312483,0.065394499,0.065306684,0.06522881,0.065309998,0.065668716,0.066372898,0.067495448,0.068221998,0.070070269,0.072262347,0.074885218,0.077822072,0.081115988,0.084739627,0.088663164,0.09287086,0.097438102,0.102274591,0.106108656,0.11009267,0.115681392,0.121507878,0.127637576,0.134039007,0.140763532,0.147845948,0.155333476,0.163249312,0.171586001,0.17822851,0.185182516,0.193837329,0.202218754,0.21199943,0.222172791,0.231637828,0.240887468,0.249703001,0.257951874,0.265913275,0.271700824,0.277466005,0.285100996,0.29272936,0.300515958,0.308228824,0.316012937,0.323397737,0.330345944,0.336295869,0.341070224,0.343804108,0.345428698,0.346109683,0.345070808,0.342447936,0.338426642,0.333373099,0.327576437,0.321400345,0.315157149,0.308906496,0.305905023,0.299915332,0.294119499,0.288334435,0.282401907,0.276028644,0.26903653,0.261161288,0.251930702,0.241498036,0.232665934,0.223012839,0.208874518,0.193587966,0.177497817,0.160894858,0.144317581,0.128368269,0.113053549,0.098487748,0.08835001,0.07873171,0.067114361,0.056391737,0.046888592,0.038493912,0.031412324,0.025514591,0.020447794,0.016229328,0.012783806,0.011293425,0.008730202,0.006666534,0.004838974,0.003549907,0.002429843,0.001607192,0.000982541,0.000369489,0\nSRI-0000475.txt,OCC1=CC2=C(Cl)C=C(Cl)C=C2C2=CN=CC=C12,0.630256032,0.635203944,0.638037748,0.638757444,0.636463412,0.630885766,0.621484733,0.610104536,0.598409471,0.588918476,0.584690261,0.585904748,0.595575667,0.613478112,0.639342198,0.672178341,0.709557567,0.748196261,0.78656507,0.823494485,0.857500135,0.890561183,0.922542687,0.952994836,0.978229187,0.995321974,1,0.9902841,0.969295957,0.940211231,0.906273053,0.870738049,0.83490617,0.801093938,0.770880189,0.744210943,0.722125263,0.70412386,0.688987747,0.675880279,0.664113244,0.651001277,0.633584627,0.61132802,0.582733586,0.54860199,0.510611022,0.472174742,0.434930459,0.399467425,0.366536821,0.336354558,0.308664244,0.284576909,0.264281473,0.2485786,0.237153421,0.229709063,0.225471851,0.223339751,0.221536012,0.219331942,0.216453157,0.21324601,0.210376221,0.207902265,0.206809227,0.206989151,0.208325087,0.209890426,0.21139729,0.211986542,0.211262347,0.208734414,0.20459616,0.198528221,0.191088361,0.182793861,0.17374368,0.165107325,0.15668238,0.149345976,0.143021645,0.137997265,0.1345967,0.13263103,0.132194714,0.132743482,0.134286331,0.135977617,0.137493478,0.138730456,0.139283722,0.138941867,0.138001763,0.136584861,0.134920564,0.132941399,0.131425538,0.130566401,0.130148078,0.130840785,0.131744904,0.132851437,0.134191871,0.135361377,0.136580363,0.137790352,0.139490635,0.141217906,0.143813311,0.146867522,0.149507908,0.152782526,0.156506954,0.160703683,0.164324655,0.168026593,0.170954857,0.172916029,0.174220479,0.174229475,0.174144011,0.173766171,0.172965509,0.171980424,0.171157272,0.170419583,0.169888807,0.169452491,0.169753864,0.17028464,0.170185682,0.170050739,0.169061156,0.166947048,0.16338905,0.158715522,0.152485651,0.14500081,0.136287986,0.126509113,0.117018118,0.107423667,0.098162076,0.089939546,0.08455082,0.081456126,0.077254898,0.069293258,0.060157613,0.051948578,0.046006585,0.042075244,0.039362889,0.037149823,0.034941255,0.032620234,0.030164271,0.027532881,0.024681085,0.021406466,0.017736015,0.013881142,0.010242178,0.007637777,0.006166898,0.00502438,0.004070782,0.003283614,0.002892279,0.0023705,0.001911693,0.001299951,0.001012073,0.000935605,0.000697206,0.000562263,0.000395833,0.000251894,0\nSRI-0000449.txt,[O-][N+](=O)C1=CC=C(S1)\\C=N\\NC(=O)CCCC1CCCCC1,0.275448708,0.262290121,0.247815675,0.23202537,0.216235065,0.20044476,0.184654455,0.168864151,0.154389705,0.139915259,0.12807253,0.118861519,0.113598084,0.110966367,0.112282225,0.114913943,0.122809095,0.132941207,0.145836623,0.161890099,0.179785778,0.200707932,0.223603874,0.24794726,0.273869677,0.300976367,0.328346229,0.356900363,0.385717669,0.414798147,0.443352282,0.472169588,0.500065793,0.527304069,0.5530949,0.577819885,0.60050529,0.620348439,0.637744092,0.652547503,0.663232275,0.67082478,0.674956577,0.675193431,0.671811674,0.664784989,0.653205432,0.638520448,0.62005895,0.598347281,0.572622243,0.545055003,0.515013948,0.483670193,0.450865835,0.417903574,0.385599242,0.353426496,0.322398547,0.293304911,0.266092952,0.240157377,0.215787673,0.193102269,0.173443339,0.15406074,0.136941418,0.120703721,0.106347703,0.092978578,0.080043687,0.06855624,0.058818885,0.049213116,0.04144955,0.033409653,0.026764567,0.02105374,0.016224538,0.012211169,0.008500447,0.006105585,0.003789673,0.00205274,0.000868467,6.58E-05,0,0.00027633,0.001447445,0.002539607,0.004052845,0.006605611,0.009737355,0.012421706,0.01621138,0.021303753,0.025817148,0.031659561,0.037699353,0.044515501,0.051936944,0.060437391,0.069279962,0.079346281,0.089623138,0.100939523,0.113334912,0.125717143,0.13962577,0.153915996,0.168285173,0.18452287,0.201050055,0.218024633,0.236328228,0.254421285,0.274382862,0.294633928,0.314582346,0.335451866,0.356874046,0.379322596,0.401297437,0.424074951,0.446484025,0.469616822,0.493907574,0.517566714,0.541383757,0.564687615,0.585543976,0.60701879,0.629138376,0.651179009,0.673443339,0.695102374,0.716577188,0.73732828,0.757974104,0.779014685,0.79898942,0.818595716,0.83728091,0.855558187,0.873124901,0.889059951,0.900100005,0.906824043,0.914745513,0.929180483,0.945641876,0.960629507,0.97131428,0.977867256,0.981749039,0.984709722,0.987565135,0.990236328,0.992407495,0.994841834,0.996223485,0.998289384,1,0.999881573,0.997105111,0.990894258,0.982512237,0.973314385,0.962498026,0.949997368,0.936549292,0.92175904,0.905218696,0.887415127,0.870322122,0.851636928,0.831741144,0.809858414,0.786528238,0.763632296,0.739709985\nSRI-1053402-001.txt,c1csc(c1)-c1ncc2ccccn12,0.780692512,0.749203696,0.723285979,0.700153811,0.678959416,0.664062784,0.651103925,0.639719507,0.630878417,0.623611767,0.618404002,0.614165123,0.611016241,0.608230692,0.606898473,0.6049607,0.603749591,0.603265148,0.60217515,0.601206264,0.599510712,0.596846274,0.593455171,0.589385847,0.584541414,0.579103538,0.57264833,0.565345348,0.556855478,0.54837772,0.539306519,0.529557098,0.518826678,0.508471702,0.497087285,0.48462498,0.471096901,0.45676949,0.441715414,0.425801451,0.408809602,0.391805641,0.375625235,0.359166273,0.3426952,0.327217236,0.311569717,0.296636752,0.283048117,0.270622146,0.260436726,0.252285967,0.246860202,0.24392932,0.243796098,0.245309983,0.248822197,0.254272184,0.260812169,0.269398927,0.278821349,0.289442769,0.302244184,0.315457375,0.32994223,0.345202195,0.361612712,0.379391781,0.399193402,0.418316802,0.436919425,0.456394046,0.476449999,0.496493842,0.517143238,0.537695745,0.559096029,0.58036309,0.601424263,0.62264288,0.644733496,0.666218557,0.68806695,0.709273456,0.730031852,0.750620693,0.771039979,0.790563044,0.80897189,0.827574513,0.844941806,0.861630878,0.877338953,0.89307125,0.907374438,0.921641294,0.934479042,0.946287348,0.956593879,0.966742966,0.975644612,0.983129262,0.98948758,0.993532682,0.996887452,0.999128002,1,0.999273335,0.997686783,0.995373566,0.991134687,0.985926922,0.979919825,0.972071843,0.962940086,0.953396553,0.942484468,0.929586164,0.91577953,0.901742785,0.885320156,0.868388863,0.850694571,0.831256283,0.810219332,0.789460936,0.767370321,0.745243372,0.723915755,0.702370139,0.681611743,0.661664789,0.638532621,0.616320895,0.593491504,0.570698446,0.546548947,0.523089779,0.5000545,0.476958665,0.453233054,0.43059744,0.408397825,0.385810655,0.363816929,0.344087975,0.330378229,0.322421248,0.310988385,0.288231661,0.261417723,0.237098669,0.21843549,0.205525076,0.19583621,0.187649118,0.179328804,0.170487713,0.160907847,0.150310649,0.138696121,0.12526493,0.109992854,0.09304945,0.076009156,0.062323632,0.053034432,0.045440783,0.038646465,0.033475033,0.028424711,0.022659836,0.018396735,0.015017743,0.01140864,0.009046979,0.006745873,0.004517434,0.002712883,0.00145333,0\nSRI-1053131-001.txt,Cc1nnc(NS(=O)(=O)CCN2C(=O)c3ccccc3C2=O)s1,0.997583957,1,0.988409112,0.958437952,0.909138451,0.844241714,0.770323046,0.695181066,0.6260639,0.567314309,0.521378918,0.487279077,0.461069603,0.438407736,0.416724519,0.396050535,0.377670262,0.362959927,0.352898181,0.347607353,0.345221894,0.34127671,0.330572724,0.310724476,0.284667916,0.256959885,0.233380533,0.215945269,0.20555017,0.201085078,0.20127775,0.204626569,0.210195699,0.216826054,0.224080298,0.231135754,0.237925139,0.244047819,0.249372288,0.25360495,0.256660173,0.258550191,0.259219955,0.258752038,0.256816145,0.253617183,0.249097042,0.242959071,0.235671186,0.226909209,0.21715329,0.20672455,0.195656628,0.184175839,0.172584951,0.160975714,0.148975017,0.137249565,0.125566929,0.114235995,0.103357687,0.093424389,0.084497264,0.076775103,0.070603491,0.065649074,0.062031127,0.058948379,0.057021662,0.055945147,0.055146935,0.054886981,0.054935914,0.05515611,0.055452763,0.05576165,0.055880923,0.055883981,0.056033837,0.055685193,0.055305966,0.054724892,0.053926681,0.053021429,0.051902098,0.050538105,0.048941682,0.047125062,0.044907808,0.04230521,0.039561932,0.036595399,0.033479009,0.030093492,0.027029093,0.023943287,0.020933938,0.018166193,0.015676752,0.01349008,0.011538897,0.009930241,0.008468382,0.007229778,0.006101272,0.005275536,0.004443683,0.003850377,0.003400809,0.002850319,0.002565898,0.002247837,0.001987883,0.001813561,0.001596423,0.001315061,0.001107098,0.001042874,0.0009603,0.000987825,0.000899135,0.000730929,0.000660589,0.000547432,0.000639181,0.000541316,0.000513791,0.000324178,0.000397577,0.000324178,0.000412868,0.000311945,0.000287478,0.000238546,0.000211021,0.000308886,0.000305828,0.000299712,0.000232429,0.000238546,0.000159031,0.000134564,0.000217138,0.000189613,0.00012539,0.000119273,0.000119273,0.000103982,8.87E-05,7.34E-05,6.42E-05,6.12E-05,5.2E-05,4.28E-05,3.67E-05,2.45E-05,2.14E-05,1.83E-05,1.53E-05,1.22E-05,3.06E-06,0,0,1.22E-05,4.59E-05,3.98E-05,6.73E-05,0.000152914,9.79E-05,7.65E-05,7.95E-05,0.000122331,0.000201847,0.000103982,0.000171264,0.000116215,9.17E-06,1.83E-05,7.65E-05,3.36E-05,6.42E-05\nSRI-004240.txt,C(C1=CNC2=C1C=CC=C2)C1=CC=NC=C1,1,0.980279478,0.940273965,0.89828243,0.846543906,0.768932343,0.6862585,0.602677543,0.522243639,0.447010772,0.379185844,0.320681251,0.273318772,0.237885641,0.213856093,0.199551823,0.192678147,0.191109341,0.193158606,0.196274509,0.200417405,0.207109847,0.214649935,0.222845109,0.231534901,0.240608871,0.250023598,0.259523279,0.268934231,0.277876995,0.28582958,0.292370994,0.297135937,0.299549558,0.300778551,0.300963561,0.299246557,0.295622822,0.290237719,0.283514127,0.27597215,0.268198912,0.260665431,0.253501969,0.246944508,0.241367788,0.237028556,0.234737645,0.233343465,0.232576996,0.232742183,0.233338745,0.23412598,0.23487829,0.235451254,0.235751422,0.235707058,0.235128431,0.233994774,0.231887929,0.229695187,0.226693499,0.221920061,0.216537789,0.210939358,0.205223881,0.19907514,0.192164651,0.184251711,0.175213611,0.165088106,0.153828945,0.141476717,0.13490321,0.121253082,0.107501954,0.094447444,0.08270688,0.072533236,0.063901024,0.056717739,0.050749289,0.045862579,0.041869768,0.038651921,0.037274732,0.034963999,0.03318564,0.031749927,0.030704056,0.029877176,0.029286278,0.028846408,0.028516977,0.02824607,0.028066724,0.027945902,0.027899649,0.027816584,0.027752397,0.027653284,0.027588153,0.027519247,0.027449396,0.027338957,0.027249284,0.02711147,0.026888703,0.026845283,0.026698974,0.02642146,0.026181702,0.026011795,0.025644608,0.025331224,0.025015952,0.024664812,0.02429668,0.023920997,0.02370295,0.023279127,0.022836425,0.022364462,0.021829255,0.021343133,0.020843795,0.020306701,0.019735625,0.019183428,0.018723735,0.018326342,0.0177345,0.017093573,0.01652061,0.015925936,0.01532371,0.01471299,0.014124923,0.013509483,0.01295351,0.012678827,0.012134181,0.011531012,0.011027899,0.010452103,0.009898018,0.009432662,0.008922942,0.008398118,0.007972407,0.007517434,0.007281453,0.006786835,0.006368675,0.005949572,0.005538963,0.005165168,0.004753616,0.004416634,0.004042839,0.003873876,0.003582203,0.003362268,0.002977146,0.002757211,0.002410789,0.00224749,0.002009621,0.001750041,0.001524442,0.001327161,0.001238432,0.001051535,0.000939207,0.00064659,0.000711721,0.000362468,0.000350197,0.000224655,0,7.55E-05\nSRI-1052786-001.txt,NS(=O)(=O)c1ccc(CNC(=O)CC2NC(=O)N(CCc3c[nH]c4ccccc34)C2=O)cc1,0.988615783,0.997930142,1,0.994825356,0.973868047,0.940232859,0.893143596,0.831047865,0.759637775,0.680206986,0.599482536,0.522897801,0.450711514,0.386028461,0.330659767,0.280206986,0.238292367,0.201293661,0.16843467,0.14152652,0.117981889,0.099353169,0.08538163,0.074256145,0.065976714,0.060284605,0.055627426,0.053402329,0.052574386,0.051228978,0.051746442,0.052470893,0.05373868,0.055912031,0.057567917,0.059689521,0.062199224,0.065821475,0.067761966,0.070815006,0.074773609,0.078421734,0.082664942,0.085071151,0.088201811,0.091772316,0.094514877,0.098499353,0.101397154,0.104010349,0.107063389,0.109003881,0.110892626,0.112470893,0.114721863,0.116015524,0.116662354,0.115627426,0.114747736,0.114980595,0.115705045,0.116041397,0.116041397,0.117102199,0.114514877,0.111228978,0.106727038,0.102587322,0.100258732,0.099146184,0.098758085,0.097309185,0.093686934,0.086157827,0.07549806,0.066209573,0.056300129,0.046959897,0.039637775,0.033454075,0.028589909,0.024062096,0.019844761,0.016507115,0.014126779,0.01084088,0.009495472,0.007218629,0.006338939,0.005588616,0.003311772,0.003208279,0.002846054,0.002147477,0.002820181,0.001785252,0.001267788,0.002095731,0.000957309,0.001086675,0.000543338,0.000931436,0.00080207,0.001034929,0.001345408,0.001190168,0.001397154,0.001112549,0.001060802,0.000957309,0.000155239,0.001190168,0.001112549,0.001034929,0.001474774,0.001759379,0.000284605,0.001267788,0.0014489,0,0.00072445,0.001966365,0.001293661,0.000388098,0.001707633,0.001138422,0.000284605,0.000543338,0.001060802,0.000957309,0.002380336,0.001397154,0,0.001241915,0.000206986,0,0.000750323,0.0014489,0.000853816,0.002173351,0.001267788,0.001241915,0.001190168,0.000543338,0.001681759,0.001836999,0.001888745,0.001992238,0.001966365,0.001759379,0.001500647,0.001474774,0.001371281,0.001319534,0.001293661,0.001293661,0.001293661,0.001267788,0.001267788,0.001293661,0.001319534,0.001371281,0.001423027,0.0014489,0.001267788,0.001216041,0.001112549,0.001914618,0.001992238,0,0.001552393,0.001733506,0.002043984,0.001630013,0.001992238,0.000776197,0.001241915,0.001681759,0.000465718,0.000543338,0.001940492\nSRI-1052817-001.txt,COC(=O)C(Cc1c[nH]c2ccccc12)NC(=O)C1CN(Cc2ccc(Cl)cc2)C(=O)C1,0.992871689,1,0.998742063,0.985883149,0.961423258,0.919492017,0.855896301,0.774270152,0.677087512,0.574244154,0.477229239,0.391465874,0.31847756,0.258627702,0.211077675,0.173954549,0.145553122,0.124014441,0.10764728,0.095137793,0.085870989,0.078672792,0.073165823,0.068958721,0.065813878,0.063591523,0.062235746,0.061606777,0.06183041,0.062585173,0.06382494,0.065546916,0.06784335,0.070662528,0.073828336,0.077357549,0.081244575,0.085557902,0.090146578,0.094810729,0.099497244,0.104214509,0.108954137,0.113721719,0.118622084,0.123832739,0.128988884,0.134108689,0.138842726,0.143119712,0.146904706,0.150246626,0.153156654,0.15563479,0.157706193,0.159190559,0.160122831,0.160969842,0.161626764,0.162524093,0.163618498,0.164409601,0.164478089,0.16342841,0.16058687,0.155353851,0.148702158,0.142240554,0.138336755,0.137103977,0.137060648,0.134859258,0.127398292,0.114698717,0.099128249,0.083677985,0.069755415,0.057802216,0.048015464,0.039788555,0.032909036,0.027206387,0.022484929,0.018621664,0.015467037,0.012959549,0.010997167,0.009416359,0.008211535,0.007365921,0.00667126,0.006151313,0.005880158,0.005664911,0.005483209,0.005351824,0.005326665,0.00529312,0.005210656,0.005253985,0.005230223,0.005265166,0.005309893,0.005279143,0.005378381,0.005397948,0.00534204,0.005431493,0.005388164,0.005399346,0.005340642,0.005315484,0.005297313,0.005160338,0.005132384,0.005114214,0.005111418,0.005062499,0.004882194,0.004796934,0.004708878,0.004595664,0.004504813,0.004392996,0.004240646,0.004075717,0.003881435,0.003734676,0.003515236,0.003386647,0.003302784,0.003150434,0.002856915,0.00271994,0.002552215,0.002369115,0.002190208,0.00203087,0.001850565,0.001666068,0.001541672,0.001375345,0.001172677,0.00100635,0.000902919,0.000821852,0.000768739,0.000744978,0.000703047,0.000606605,0.000501777,0.000409528,0.000341041,0.000293519,0.000261371,0.000239008,0.000218042,0.000198475,0.000176111,0.000153748,0.000129987,0.000106226,7.55E-05,4.75E-05,2.24E-05,1.4E-05,2.94E-05,3.63E-05,0,7.41E-05,5.73E-05,2.52E-05,4.05E-05,9.09E-05,3.63E-05,1.54E-05,7.13E-05,5.59E-06,3.35E-05,3.35E-05,4.61E-05\nSRI-1053032-001.txt,COc1ccc(cc1)S(=O)(=O)N[C@@H](CSCc1ccccc1)C(O)=O,0.590507108,0.577073771,0.566998769,0.559722378,0.557483488,0.559722378,0.567558491,0.582670995,0.603492668,0.629295869,0.660416433,0.694727415,0.731557148,0.770177992,0.80891078,0.847195791,0.882794134,0.915593865,0.944699429,0.968543602,0.986174857,0.996529721,1,0.994122915,0.980297772,0.956677488,0.925668868,0.885816635,0.837960372,0.783499384,0.722915034,0.658524572,0.592874734,0.528573827,0.468207769,0.413097504,0.363506101,0.320469047,0.283913579,0.253845293,0.229794022,0.210679503,0.194727415,0.181282884,0.169735811,0.159134669,0.149647375,0.141441845,0.134450912,0.128545841,0.123127729,0.117899922,0.111983656,0.104863987,0.096899138,0.088161872,0.079340647,0.071610881,0.065845741,0.06215717,0.059722378,0.057281988,0.053123251,0.046927124,0.040311206,0.033930371,0.028137244,0.023989701,0.021006381,0.018817866,0.017026755,0.016080824,0.015526699,0.014771074,0.014194559,0.013707601,0.013041531,0.012375462,0.011994851,0.011362364,0.010718684,0.010035822,0.009336169,0.008759655,0.008071197,0.007427516,0.006750252,0.006498377,0.005865891,0.005233404,0.00495914,0.004897571,0.004796821,0.004595321,0.004746446,0.004539348,0.004612112,0.004125154,0.003962834,0.003772529,0.003442293,0.003033695,0.002725848,0.002317251,0.00227807,0.001723945,0.001466473,0.001057875,0.001046681,0.001225792,0.001388111,0.001656778,0.001768723,0.001824695,0.002110153,0.002020598,0.002272473,0.002557931,0.002233292,0.002445987,0.002636292,0.002602709,0.002821001,0.002798612,0.00288257,0.003072876,0.002921751,0.002625098,0.002737042,0.003022501,0.002737042,0.002613904,0.002759431,0.002423598,0.002328445,0.002328445,0.002160528,0.002138139,0.002098959,0.002115751,0.001600806,0.001695959,0.001718348,0.001578417,0.001466473,0.001404903,0.001332139,0.001287361,0.001209,0.001091459,0.000962722,0.000845181,0.000755625,0.000688459,0.000632486,0.000593306,0.000548528,0.000498153,0.000436583,0.000375014,0.000324639,0.000251875,0.000179111,0.000106347,0.000106347,0.000106347,7.28E-05,0,8.4E-05,0.000145528,0.000291056,0.000285458,0.000307847,0.000128736,0.000223889,0.000151125,0.0002015,0.00030225,0.000134333,6.72E-05,0.000162319\nSRI-0000648.txt,CC1=CC=C(C=C1)S(=O)(=O)OCC(OS(=O)(=O)C1=CC=C(C)C=C1)C1OC2OC(C)(C)OC2C1OS(=O)(=O)C1=CC=C(C)C=C1,0.791214014,0.840015617,0.884573601,0.924463607,0.957139462,0.982176806,0.996180744,1,0.991512765,0.970294677,0.93719446,0.893485198,0.840015617,0.7780588,0.707614747,0.630805269,0.548479087,0.464455459,0.382383895,0.305234927,0.23861013,0.182976304,0.138503191,0.104723995,0.080238322,0.06305167,0.051678775,0.044252444,0.040136135,0.038014326,0.037208039,0.037377784,0.038226507,0.039839082,0.041918455,0.044252444,0.046586434,0.048351779,0.049620621,0.05045237,0.051470838,0.05313858,0.055570172,0.057547698,0.058298819,0.058239408,0.057815046,0.057186991,0.056210959,0.053804828,0.049510287,0.044804115,0.041710517,0.041570478,0.042932679,0.042864781,0.038532048,0.030460687,0.021905554,0.014929047,0.01005313,0.006819493,0.004816506,0.003568882,0.002868685,0.002715915,0.002244874,0.001871435,0.001574382,0.001523459,0.001264598,0.000988763,0.000908134,0.000785069,0.000810531,0.000835993,0.000734146,0.000640786,0.000377682,0.00049226,0.000454067,0.000534696,0.000411631,0.000390413,0.000386169,0.000314028,0.000233399,0.00035222,0.00024613,0.000309784,0.000347977,0.000390413,0.000369195,9.76E-05,3.82E-05,0.000263104,0.000356464,0.000297053,0.000216424,0.000173988,0.000356464,0.000369195,0.000364951,9.76E-05,8.91E-05,0.000301297,0.000263104,0.000377682,0.000373438,0.000343733,0.000347977,0.000212181,0.000339489,0.000343733,0.000114578,0.000369195,0.000331002,0.000267348,0.00019945,0.000173988,0.00019945,0.000437093,0.000432849,0.000148527,7.64E-05,0.000114578,0.000309784,0.000233399,0.000207937,0.00030554,0.000216424,0.000178232,0.00024613,0.000267348,0.000195206,0.000237643,0.000271592,0.000233399,0.000212181,0,0.000233399,0.00024613,0.00019945,0.000140039,0.000224912,0.000356464,0.000373438,0.000356464,0.000335246,0.000318271,0.000297053,0.000284322,0.000263104,0.000241886,0.000216424,0.000195206,0.000186719,0.000178232,0.000173988,0.000161257,0.000161257,0.000165501,0.000178232,0.000212181,0.000267348,0.000288566,0.000275835,0.000369195,0.000326759,0.000297053,0.000144283,0.000157014,6.79E-05,0.000195206,0.000394656,0.000326759,0.000229155,0.000220668,0.00024613,0.000471042,0.000237643\nSRI-0000700.txt,COC(=O)C1=CC=C(C=C1)N(C)C,0.215391009,0.224500137,0.233039944,0.24101043,0.248411596,0.254674121,0.259798005,0.262644607,0.264352569,0.263783248,0.261505966,0.256780607,0.250062625,0.240896566,0.230364137,0.217952951,0.203833804,0.188519084,0.172691975,0.156637138,0.140411505,0.12498292,0.110806841,0.098054063,0.08712311,0.077900118,0.07044202,0.064805748,0.060649709,0.057803106,0.056038213,0.054854026,0.054170842,0.053943113,0.053778011,0.053886181,0.05411391,0.054609218,0.054854026,0.055935735,0.056949126,0.058691246,0.060763573,0.0636728,0.067390463,0.071757151,0.077279559,0.083547777,0.090971716,0.09966524,0.109036254,0.119722399,0.131672436,0.144271498,0.158339406,0.17318159,0.189469849,0.20665194,0.224915741,0.244027828,0.264335489,0.285206777,0.306835261,0.329249408,0.352335353,0.376298051,0.400317681,0.424758608,0.449324786,0.474551375,0.499726726,0.524896384,0.550350701,0.57577086,0.601606622,0.626742121,0.65227045,0.678715385,0.704272181,0.730079477,0.755522408,0.781346784,0.806396885,0.831316041,0.855238887,0.87837607,0.900613727,0.921006786,0.939475542,0.956361587,0.971089907,0.983552332,0.992018127,0.997808116,1,0.997756877,0.991961195,0.981684961,0.96610266,0.946768537,0.922344689,0.893861587,0.860419703,0.823214611,0.782827018,0.739063354,0.693642968,0.645985152,0.59758722,0.548141738,0.499180179,0.451824103,0.405840089,0.362087812,0.320219985,0.281255693,0.245490982,0.212618419,0.1830593,0.156489115,0.132623201,0.112019494,0.093852478,0.077968437,0.064748816,0.05351043,0.043746584,0.035650847,0.028989798,0.023547094,0.019083622,0.015804336,0.01252505,0.009883403,0.008175442,0.006672436,0.005163737,0.004224358,0.003563946,0.003045864,0.002402532,0.001890144,0.001485926,0.001303744,0.001115868,0.001104482,0.001127255,0.001167107,0.001127255,0.000967845,0.000791355,0.000654719,0.000552241,0.000472536,0.000415604,0.000381445,0.000370058,0.000358672,0.000335899,0.000318819,0.000307433,0.000290353,0.000278967,0.000273274,0.000261887,0.000233421,0.000233421,0.000307433,0.00046115,0.000375752,0.000193569,0,0.000233421,0.000204955,0.000244808,0.000296047,0.000409911,0.00044407,0.000318819,0.0005864,0.000335899\nSRI-0000502.txt,FC(F)(F)C1=CC=C2C(C=O)=CC3=C(N=CC=C3)C2=C1,0.397666864,0.410464658,0.425231345,0.441966923,0.460179169,0.480360307,0.503987005,0.529582595,0.559115968,0.592587123,0.629011616,0.667897224,0.708751723,0.750590667,0.792429612,0.833284111,0.873400276,0.911252215,0.945412483,0.973764521,0.992567435,1,0.996111439,0.982033865,0.959686946,0.932614688,0.901210868,0.866213822,0.827820437,0.786522938,0.744093325,0.703288049,0.666026777,0.632949399,0.604873006,0.581334908,0.561168537,0.545835794,0.5336582,0.526235479,0.521810396,0.518546958,0.514348297,0.508092144,0.498789132,0.486247293,0.471913763,0.456138019,0.440721599,0.42667848,0.414850364,0.406310297,0.400482378,0.396667651,0.392537901,0.386385115,0.376378224,0.362221894,0.344216381,0.323626698,0.30141268,0.279208506,0.258146289,0.239230163,0.223597165,0.210681236,0.20108289,0.194447726,0.190204765,0.187487694,0.186380193,0.186887183,0.188422918,0.190844654,0.194477259,0.198616854,0.202948415,0.207516243,0.21188226,0.215972632,0.219319748,0.222076196,0.224123843,0.225438078,0.225979524,0.226422524,0.22636838,0.22599429,0.225438078,0.22449301,0.222952353,0.22109175,0.218601103,0.214574719,0.209883835,0.203553849,0.19651014,0.188831463,0.180439063,0.171608584,0.161980705,0.152091947,0.1415633,0.130837763,0.120643828,0.110947037,0.102534948,0.094811971,0.088452451,0.083682812,0.080463674,0.078893483,0.078440638,0.077997637,0.077264225,0.075344556,0.072297696,0.068158102,0.063782241,0.058973223,0.054661351,0.050841701,0.04759303,0.044664304,0.042729868,0.041346722,0.041405789,0.042213034,0.043911203,0.045486316,0.046608584,0.046702107,0.045092538,0.042483757,0.038870841,0.034755857,0.030773774,0.02703288,0.023203386,0.019890727,0.016981689,0.014431975,0.012123449,0.010371136,0.008554834,0.007294743,0.006635164,0.006325064,0.005965741,0.005261863,0.004400473,0.003607994,0.003071471,0.002731837,0.002505414,0.002338059,0.002170703,0.002008269,0.00185568,0.001698169,0.001535735,0.001353613,0.001151802,0.000945068,0.000723568,0.000580823,0.000620201,0.000669423,0.000447923,0.00081709,0.000438078,0.000369167,0.000187045,0.000319945,0.0002215,0.000211656,0.000251034,0.000236267,0,0.000216578,0.000393778\nSRI-0000516.txt,CCCCN(CCCC)CC(O)C1=CC2=C(C=CN=C2)C2=C1C=CC(=C2)C(F)(F)F,0.560938903,0.5548705,0.535937083,0.508022429,0.473068427,0.440056315,0.408500619,0.385197951,0.372332937,0.367963687,0.372818409,0.385440687,0.403888633,0.427919509,0.455591427,0.487875331,0.521615652,0.557783334,0.597592058,0.638371726,0.678423186,0.717503702,0.754156856,0.787654441,0.818481928,0.847610263,0.875767653,0.903925043,0.932082433,0.959244605,0.980629657,0.994514164,1,0.995582203,0.98232881,0.962497269,0.936791514,0.909410879,0.88045246,0.849357963,0.81714688,0.779474234,0.736121562,0.688399641,0.639124208,0.593684006,0.550913901,0.512003301,0.477292036,0.446731558,0.420516057,0.39728621,0.377915868,0.361021434,0.347379664,0.335218584,0.321261257,0.308566158,0.295215671,0.280942787,0.266572809,0.255018569,0.244459548,0.236910455,0.229652645,0.227516567,0.225598951,0.224870743,0.223365779,0.220671408,0.217807122,0.213098041,0.209772556,0.206277156,0.203946889,0.202854577,0.201859359,0.20280603,0.20253902,0.199480545,0.191931451,0.18163944,0.167536471,0.149938102,0.132096997,0.113090759,0.095662306,0.080758308,0.06672816,0.056023497,0.047430638,0.040779668,0.03568221,0.031604243,0.028036022,0.026069859,0.025341651,0.025098915,0.026094133,0.024880452,0.025414472,0.025050368,0.024322159,0.023763866,0.024467801,0.024759084,0.025196009,0.025778576,0.027356361,0.028570042,0.030730393,0.034395708,0.036313324,0.037017259,0.040342743,0.041240867,0.042041896,0.04206617,0.041289414,0.039541714,0.039954366,0.04058548,0.041920528,0.043498313,0.044930456,0.04704226,0.050974586,0.053474768,0.056436148,0.058717868,0.061606428,0.062868655,0.06148506,0.058547953,0.056824526,0.053766051,0.051532879,0.048571498,0.046750977,0.046071316,0.044809088,0.045488749,0.046459694,0.046945166,0.04696944,0.047115081,0.046678156,0.046314052,0.045415928,0.043182756,0.040561206,0.038061024,0.035876399,0.03420152,0.032890744,0.031749885,0.030560478,0.029249703,0.027841833,0.026312596,0.024613443,0.02264728,0.020341287,0.017768284,0.015146734,0.013132024,0.011821249,0.010510474,0.008350123,0.008083113,0.008180207,0.00725781,0.00611695,0.004417797,0.004854722,0.003665315,0.002694371,0.001723426,0.001383596,0.001262228,0\nSRI-1052888-001.txt,OC(=O)C(Cc1ccccc1)NS(=O)(=O)c1ccc(Oc2ccccc2Cl)cc1,0.916460943,0.862910265,0.813108135,0.769732086,0.734388639,0.708684313,0.693690124,0.688335056,0.69261911,0.705471273,0.725285023,0.749382828,0.778300194,0.810002196,0.842668109,0.874959168,0.905857909,0.934453971,0.959087282,0.979061685,0.992235152,1,0.999518044,0.991164138,0.974349225,0.949823015,0.917746159,0.877583151,0.831315365,0.779157005,0.72421401,0.668574856,0.614702874,0.562025072,0.512330044,0.466672736,0.424678294,0.387658711,0.355148094,0.32592549,0.29985702,0.276369692,0.254665603,0.235269547,0.217978034,0.202823192,0.189585464,0.17817917,0.167463679,0.157230145,0.146841313,0.136677395,0.1272257,0.118587976,0.110287621,0.102083657,0.093413802,0.084760013,0.077353954,0.070911807,0.064860581,0.058573731,0.052035194,0.045277098,0.038577908,0.032328544,0.026668237,0.021500597,0.017398615,0.014287321,0.011556236,0.00986939,0.008862637,0.007979051,0.007154371,0.006527828,0.006233299,0.005933415,0.005638886,0.005055184,0.004964148,0.004739235,0.004326895,0.004214438,0.00393062,0.003609316,0.003411178,0.003325497,0.003116649,0.002661469,0.002447266,0.002431201,0.002029571,0.002013505,0.00197602,0.001654716,0.001649361,0.001547615,0.001558325,0.001569035,0.001451223,0.001403028,0.001440513,0.001263796,0.001306637,0.001135274,0.000878231,0.000797905,0.001145985,0.00115134,0.001060303,0.001124564,0.000722934,0.000733644,0.000899651,0.000664028,0.000530152,0.000572992,0.000696159,0.000503376,0.000722934,0.000551572,0.00042305,0.000599768,0.000417695,0.000299884,0.000321304,0.000364145,0.000182072,0.000315949,0.000701514,0.000546217,0.000514087,0.000337369,0.000262398,0.000337369,0.000540862,0.00040163,0.000305239,0.000203493,0.000240978,0,5.36E-06,0.000299884,0.000133877,0.000262398,0.000342724,0.000364145,0.00038021,0.0003695,0.000348079,0.000326659,0.000299884,0.000267753,0.000240978,0.000214203,0.000203493,0.000192782,0.000176717,0.000176717,0.000171362,0.000176717,0.000182072,0.000182072,0.000166007,0.000133877,0.000144587,0.000348079,0.000310594,0.000262398,0.000428405,0.000321304,5.36E-05,0.000176717,0.000166007,0.000246333,0.000299884,0.000273108,0.000337369,0.000315949,0.000117811\nSRI-0000517.txt,CCCCC(=O)N\\N=C\\C1=CC(=CC(=C1)[N+]([O-])=O)[N+]([O-])=O,0.797736917,0.804809052,0.804809052,0.804809052,0.790664781,0.762376238,0.783592645,0.762376238,0.74115983,0.769448373,0.776520509,0.762376238,0.74115983,0.719943423,0.719943423,0.727015559,0.712871287,0.69165488,0.705799151,0.69165488,0.69165488,0.684582744,0.684582744,0.677510608,0.649222065,0.656294201,0.628005658,0.613861386,0.638613861,0.603253182,0.586280057,0.606082037,0.599009901,0.562942008,0.587694484,0.575671853,0.580622348,0.576379066,0.56718529,0.5572843,0.548797737,0.543140028,0.533239038,0.555162659,0.533239038,0.553748232,0.504950495,0.514144272,0.526874116,0.521923621,0.502828854,0.5,0.475954738,0.476661952,0.439179632,0.456152758,0.439886846,0.436350778,0.437765205,0.45049505,0.458981612,0.451202263,0.458981612,0.444837341,0.384724187,0.410183876,0.446251768,0.476661952,0.481612447,0.478076379,0.453323904,0.479490806,0.494342291,0.531824611,0.553748232,0.569306931,0.563649222,0.576379066,0.584158416,0.613154173,0.641442716,0.654879774,0.647807638,0.680339463,0.707920792,0.703677511,0.716407355,0.717821782,0.743988685,0.748231966,0.749646393,0.793493635,0.794200849,0.76096181,0.796322489,0.783592645,0.832390382,0.869165488,0.8281471,0.859264498,0.839462518,0.858557284,0.886845827,0.890381895,0.872701556,0.908769448,0.942008487,0.908062235,0.947666195,0.956859972,0.93281471,0.939179632,0.957567185,0.984441301,0.987977369,0.956152758,0.963932107,1,0.974540311,0.955445545,0.998585573,0.979490806,0.953323904,0.948373409,0.9427157,0.949787836,0.917256011,0.939179632,0.909476662,0.869165488,0.86562942,0.853606789,0.845120226,0.81612447,0.810466761,0.779349364,0.75884017,0.746817539,0.736916549,0.686704385,0.636492221,0.635785007,0.629420085,0.580622348,0.554455446,0.542432815,0.52970297,0.51980198,0.500707214,0.461810467,0.422206506,0.386138614,0.359264498,0.340876945,0.330268741,0.321782178,0.314002829,0.303394625,0.292786421,0.280056577,0.265205092,0.247524752,0.226308345,0.198019802,0.166195191,0.135077793,0.118811881,0.138613861,0.103960396,0.108203678,0.062234795,0.081329562,0.06718529,0.045968883,0.045968883,0.032531825,0.059405941,0.038896747,0.033239038,0.018387553,0\nSRI-004530.txt,C(C1=CNC2=C1C=CC=C2)C1=CN=CC=C1,1,0.967362719,0.915595243,0.865684103,0.807621718,0.723336464,0.636294562,0.550763407,0.470206167,0.396030234,0.329985361,0.273598442,0.228233267,0.194363811,0.171303739,0.157287149,0.15011373,0.147789878,0.148804847,0.151097209,0.154493359,0.160294107,0.167348023,0.175573555,0.184982006,0.195684806,0.20770214,0.221099413,0.235894388,0.25211452,0.269514341,0.287824162,0.306583736,0.320691568,0.334437661,0.352091023,0.368457303,0.383194142,0.395845327,0.406155705,0.41383136,0.41881012,0.421364096,0.421716146,0.419968816,0.416234342,0.410285831,0.404560176,0.397539365,0.386672653,0.374253206,0.360767921,0.346744871,0.332723437,0.319645915,0.30807914,0.298628701,0.291136338,0.285214472,0.280044345,0.276292915,0.27218459,0.266364464,0.260130113,0.253866694,0.247451474,0.24066321,0.232879356,0.223860905,0.213418105,0.201549342,0.18827238,0.173567032,0.165748457,0.149445158,0.132928691,0.117079181,0.102679858,0.090022213,0.079226556,0.070190341,0.062667294,0.056467664,0.051367786,0.047223934,0.045433809,0.042438963,0.040015794,0.038033495,0.036491258,0.035268773,0.034252996,0.033434238,0.032826225,0.032292499,0.031845169,0.031537529,0.031318709,0.030968274,0.030703429,0.030428088,0.030134175,0.029900013,0.02960287,0.029338833,0.029061876,0.028754236,0.028475665,0.028308522,0.027951627,0.027567279,0.027250757,0.026880943,0.02641585,0.025939452,0.025515539,0.025063365,0.024581315,0.024147712,0.023826346,0.023334606,0.022793612,0.022268767,0.021721314,0.021110879,0.020541624,0.019989325,0.019389387,0.018808828,0.018327586,0.017888331,0.017269821,0.016656964,0.016045721,0.01545628,0.014876528,0.014281435,0.013706528,0.013125968,0.012534912,0.012261993,0.011712924,0.011165471,0.010672924,0.010148079,0.0096087,0.009166215,0.008634911,0.008195656,0.007783854,0.00733814,0.007111245,0.006630003,0.006276338,0.00588876,0.005459195,0.005077269,0.004773667,0.004382052,0.004037269,0.003919381,0.003574598,0.003396151,0.002985964,0.002760684,0.002512796,0.002248759,0.001987951,0.001752175,0.00157292,0.001382361,0.00131292,0.001089255,0.001016584,0.000708944,0.000654845,0.000403727,0.00029795,0.000267267,0,3.23E-05\nSRI-0000098.txt,O\\N=C\\C1=CC=CC=C1O,1,0.961158294,0.920094302,0.875938433,0.828690687,0.778640927,0.7255476,0.670328609,0.615930897,0.561774737,0.510758766,0.465346822,0.425297352,0.391576567,0.365005749,0.345343343,0.332202866,0.325294453,0.324618105,0.328338019,0.336019402,0.347034214,0.360561176,0.376165493,0.393508991,0.412398427,0.432447317,0.453544547,0.475472719,0.4979468,0.519507812,0.539817579,0.558291545,0.575064978,0.590384262,0.605205948,0.619090408,0.632163251,0.641651449,0.645878625,0.642173203,0.631129405,0.613278646,0.592176585,0.571296753,0.552228567,0.534073451,0.5135173,0.486584152,0.449790815,0.4039634,0.35158507,0.297409587,0.247591718,0.204609795,0.169802023,0.142946172,0.12348184,0.109679508,0.100804854,0.095959303,0.094181474,0.094355392,0.096394098,0.099621245,0.104022339,0.109123936,0.11489705,0.121278878,0.127766988,0.134844488,0.141777056,0.148965671,0.156250906,0.163371885,0.170840701,0.177855397,0.184845938,0.191280907,0.197469492,0.202556596,0.207015662,0.21097713,0.213523097,0.215373392,0.216518353,0.216605312,0.216049741,0.214619747,0.212455433,0.20910751,0.205160536,0.200223195,0.194121569,0.1870489,0.179203262,0.170396243,0.16014957,0.149724147,0.138772138,0.127327362,0.115940559,0.104466796,0.093321546,0.082751191,0.072673604,0.063596046,0.055141695,0.047730852,0.040798284,0.034846421,0.029836614,0.025184305,0.02169145,0.018502952,0.015855532,0.013681556,0.011695991,0.010396437,0.008864991,0.008178981,0.007024358,0.006362503,0.00612095,0.005594365,0.004947003,0.004555688,0.004207851,0.004014609,0.003531503,0.003309275,0.003410727,0.003174005,0.002806845,0.002719886,0.002502488,0.002550799,0.002449346,0.00242036,0.002207793,0.001966241,0.002072524,0.001792322,0.00169087,0.001560432,0.001483135,0.001458979,0.001454148,0.001449317,0.001362358,0.001241582,0.001130468,0.001029015,0.000951718,0.000884084,0.000830942,0.000772969,0.000724659,0.000671517,0.000618375,0.000550741,0.000478275,0.000396147,0.000294695,0.000270539,0.000256046,0.000212567,0.000309188,0.000106283,0.000154594,0.000207735,9.66E-05,0.00022706,0.000251215,0.000169087,0.000251215,0.000328512,0.000140101,7.73E-05,0,8.21E-05\nSRI-0000701.txt,NNC(=O)C1=CC(Cl)=C(Cl)C=C1,0.925722529,0.874095257,0.836007491,0.809308093,0.79222554,0.786404819,0.787923268,0.796527813,0.808928481,0.826137571,0.845877411,0.867009161,0.888014375,0.90990535,0.930404414,0.949511566,0.965455282,0.979247862,0.989497393,0.995950802,1,0.999746925,0.99506504,0.986080883,0.972794453,0.955661285,0.933517234,0.907298679,0.877359923,0.844814496,0.810472238,0.77420661,0.736131498,0.695272562,0.652730678,0.609062611,0.566115807,0.524092727,0.483664018,0.446221592,0.41186668,0.380675204,0.351002176,0.32494812,0.301614618,0.281482513,0.263817887,0.247469251,0.233879131,0.221693577,0.210760743,0.201890469,0.193893304,0.185921446,0.179177001,0.173141165,0.167295136,0.162334869,0.157488485,0.153768285,0.149554588,0.145581313,0.140684314,0.136786962,0.131927924,0.126372931,0.120779977,0.115984208,0.111112517,0.106164904,0.101255251,0.096193754,0.090917143,0.084425773,0.077200486,0.069873969,0.062901756,0.055258896,0.049248368,0.043377031,0.039138027,0.035278635,0.031558435,0.028951764,0.026092018,0.024016804,0.02224528,0.02058764,0.019183074,0.017778509,0.016348636,0.015627373,0.014134231,0.012539859,0.011780635,0.011046718,0.010312801,0.009528268,0.008566584,0.008136357,0.0076049,0.006668523,0.005959913,0.006099104,0.004998228,0.004276965,0.00432758,0.003391203,0.003289973,0.002834438,0.002214405,0.00206256,0.001986638,0.001417219,0.000936377,0.001138837,0.001176798,0.000733917,0.001050261,0.001265374,0.001379258,0.001417219,0.000961684,0.000493496,0.000797186,0.001012299,0.001164144,0.000847801,0.000582072,0.000392266,0.000860455,0.001543757,0.000784532,0.000695956,0.000379612,0.000683302,0.000265729,0.000265729,0.000556765,0.000430227,0.000531457,0.000797186,0.000113884,7.59E-05,0.000240421,0.000620033,0.000733917,0.000759225,0.000733917,0.000645341,0.000582072,0.000518803,0.000455535,0.000417574,0.000366959,0.000366959,0.000379612,0.000366959,0.000366959,0.000366959,0.000354305,0.000366959,0.000379612,0.00040492,0.000442881,0.000493496,0.000366959,0.000455535,0.000949031,0.000392266,0.000784532,0.00060738,0.000328997,0,0.000569418,0.000835147,0.000936377,0.000911069,0.00010123,0.000746571,0.000544111\nSRI-1053107-001.txt,Cc1cc(C)c(C)c(c1C)S(=O)(=O)NC(Cc1ccccc1)C(O)=O,1,0.919821316,0.852051238,0.795735258,0.749918867,0.711738541,0.680239772,0.651604528,0.623923792,0.595288548,0.564744287,0.537063551,0.510337323,0.486856423,0.466811752,0.449630605,0.433881221,0.417177329,0.399614379,0.379760609,0.357234217,0.332130653,0.304354466,0.274860165,0.245079511,0.215585209,0.18752267,0.161560048,0.137697345,0.116793616,0.098753412,0.084149438,0.072599889,0.062844816,0.054903308,0.048679915,0.044079186,0.041253842,0.039554817,0.038600309,0.038438043,0.03811351,0.038256686,0.039383006,0.040833858,0.042341981,0.044632801,0.04752496,0.050054407,0.053252009,0.057318214,0.061212607,0.065603345,0.07091041,0.076876086,0.083710364,0.09080236,0.099163851,0.107868965,0.116364088,0.124773304,0.133402058,0.14247943,0.150936372,0.160185556,0.169721093,0.178979822,0.187723116,0.194337858,0.198995857,0.201496669,0.202365271,0.201305767,0.198804956,0.196380505,0.194891472,0.192610198,0.187923563,0.180841113,0.169759273,0.154983487,0.137496898,0.118406735,0.098667507,0.080541397,0.064477025,0.051342993,0.040003436,0.031307867,0.024416318,0.018698815,0.014575339,0.011425462,0.0088292,0.00644293,0.005307065,0.004495733,0.003312143,0.002777619,0.002643988,0.002252639,0.001393582,0.001603574,0.001842201,0.001718115,0.000830422,0.001078594,0.000878147,0.000954508,0.001088139,0.001107229,0.000859057,0.000801787,0.00062043,0.000935418,0.000744516,0.001135865,0.000400893,0.000668156,0.000696791,0.000572705,0.00056316,6.68E-05,0.000334078,0.000906783,0.001030869,0.00054407,0.000629975,0.000706336,0.000906783,0.000744516,0.00062043,0.000419984,0.000267262,0.000419984,0.00062043,0.000381803,0.000467709,0.000190902,0.000295898,0.000515434,0.000343623,0.000276807,0.000610885,0.000124086,0.000133631,0.000209992,0.000248172,0.000314988,0.000257717,0.000124086,0.000124086,0.000104996,7.64E-05,2.86E-05,0,1.91E-05,4.77E-05,8.59E-05,0.000114541,0.000133631,0.000152721,0.000181357,0.000171811,0.000219537,0.000257717,0.000162266,0.000248172,0.000200447,0.000591795,0.000276807,0.000181357,0.000229082,0,0.000286352,0.000572705,0.000400893,3.82E-05,0.000334078,0.000496344,0.00060134\nSRI-1052966-001.txt,C[C@@H](C(=O)N[C@@H](Cc1c[nH]c2ccccc12)C(O)=O)n1nnc2ccccc2c1=O,0.993207139,0.999124548,1,0.993385471,0.978713539,0.955514053,0.919831265,0.880695304,0.833177697,0.780131772,0.726826453,0.675855674,0.626830344,0.579588343,0.534291791,0.489805844,0.446503379,0.405016666,0.366691309,0.331608368,0.301259354,0.275498359,0.253790384,0.235892248,0.221495921,0.20948277,0.19973931,0.191471149,0.18446753,0.178465818,0.173780527,0.169912325,0.167341089,0.165452382,0.164468309,0.164184597,0.164033825,0.164153794,0.164656369,0.165426443,0.16697956,0.169203857,0.172449516,0.176808944,0.181910885,0.18803743,0.194614671,0.201762577,0.20910665,0.216536646,0.224128763,0.231552274,0.238990377,0.245867541,0.252167555,0.257976343,0.263263103,0.268128348,0.273009805,0.277774535,0.282069115,0.285486622,0.28781954,0.288492341,0.287422344,0.284175065,0.279527061,0.274618043,0.270363994,0.267522016,0.264589251,0.259641324,0.250998664,0.238825013,0.224877761,0.210977524,0.197990026,0.186717767,0.177037534,0.16884557,0.161950573,0.155825649,0.150110891,0.144435041,0.138668405,0.13278342,0.126815753,0.120817283,0.115219252,0.11004922,0.10568817,0.102236619,0.099751307,0.09806525,0.096855829,0.095331894,0.092976278,0.089292894,0.084082331,0.077544,0.070233973,0.062596462,0.054980027,0.047827257,0.041079789,0.03513482,0.03010259,0.025748025,0.022071126,0.018921119,0.016312595,0.014195297,0.012339014,0.010772927,0.009497036,0.008370297,0.007533754,0.006565892,0.005886606,0.005277032,0.004716094,0.004229732,0.003876308,0.003493703,0.003200265,0.002937629,0.00261663,0.002371827,0.002206464,0.001990843,0.001807647,0.001726587,0.00159689,0.001470436,0.001358572,0.001296966,0.001308315,0.001112149,0.00107324,0.001005149,0.000914361,0.000880316,0.00085924,0.000825195,0.00076521,0.00073765,0.000705225,0.000667938,0.000614438,0.000543105,0.000473393,0.000418272,0.000385848,0.000371257,0.000368014,0.000364772,0.000364772,0.000359908,0.000353423,0.000342075,0.000325863,0.000306408,0.00028209,0.000248045,0.000205893,0.000149151,8.92E-05,7.46E-05,0.000131318,4.7E-05,9.57E-05,9.24E-05,4.86E-06,3.24E-06,0.000116727,6E-05,1.95E-05,4.86E-05,0,2.76E-05,1.78E-05\nSRI-0000305.txt,OC1=CC=C(Cl)C=C1NC(=O)CC1=C(O)C=CC=C1,1,0.948704545,0.891528082,0.83075767,0.768026922,0.703989283,0.642565426,0.584735518,0.53311334,0.488515699,0.451105956,0.421210834,0.398340249,0.381383344,0.369980723,0.362923514,0.359623616,0.359460254,0.361812657,0.365864018,0.370568824,0.376025092,0.381252655,0.386284183,0.391185023,0.395530434,0.398568955,0.399712484,0.398830333,0.395007678,0.388963309,0.380471787,0.370340118,0.358999575,0.347286568,0.334766557,0.32077956,0.305064201,0.285565394,0.26216225,0.235730388,0.208177868,0.182111935,0.159398177,0.141699611,0.129156729,0.121282713,0.117479662,0.117061457,0.119015258,0.122808508,0.127983795,0.134230732,0.141745352,0.149544222,0.156833404,0.163831803,0.170268239,0.176456366,0.182513804,0.188868559,0.195066488,0.200375731,0.204554514,0.206841572,0.207625707,0.207266312,0.206694547,0.206465841,0.207076812,0.208710426,0.211085699,0.21385304,0.216153168,0.217643023,0.217874996,0.216666122,0.214323521,0.210870062,0.206589996,0.201473519,0.195631718,0.188646388,0.180314961,0.170039533,0.15756853,0.143140458,0.127033032,0.109677525,0.092596465,0.076025092,0.061064462,0.048439899,0.037612311,0.028954161,0.022171399,0.016852354,0.012895743,0.009840886,0.007697586,0.005992093,0.004779952,0.004057895,0.003296631,0.002734669,0.002149835,0.00184925,0.001653217,0.001447381,0.001453916,0.001199072,0.001045512,0.000970366,0.000921358,0.000787402,0.000614239,0.000545627,0.000578299,0.000545627,0.000656713,0.000519489,0.000493351,0.0003888,0.000434541,0.000359395,0.000378998,0.000310387,0.000333257,0.00029405,0.000261378,0.000258111,0.000303852,0.000411671,0.000261378,0.000140491,0.000320188,0.000179697,0.000186232,0.000169896,0.00032999,0.000274447,0.000264645,0.000196034,0.000274447,0.000186232,0.000202568,0.000192766,0.000160094,0.000120887,0.000120887,0.000111086,0.000104551,9.47E-05,9.15E-05,8.82E-05,9.47E-05,0.000101284,0.000104551,0.000111086,0.000124155,0.000130689,0.000147025,0.000160094,0.000163361,0.000147025,0.000124155,6.86E-05,0.000111086,0.000205835,0.000104551,0.000130689,4.25E-05,0.000101284,0.00011762,6.53E-06,0.000111086,0.000264645,0.000192766,0,0.000173163,0.000186232\nSRI-0000463.txt,[O-][N+](=O)C1=CC=C(\\C=N/NC(=O)C2=CC=NC=C2)C(=C1)[N+]([O-])=O,1,0.98359801,0.966544285,0.950033673,0.933848928,0.91799005,0.901696683,0.886706785,0.871825509,0.859116682,0.8466251,0.83641459,0.826747192,0.818817753,0.811648672,0.804805457,0.799917447,0.795572549,0.791553518,0.788620712,0.786339641,0.784275814,0.783080967,0.781560253,0.780908518,0.780256783,0.779713671,0.779398666,0.778855554,0.778464513,0.778345028,0.778008299,0.778171232,0.778203819,0.77786709,0.778551411,0.778909865,0.779550738,0.780321957,0.781647151,0.783395972,0.784460472,0.785351176,0.786513437,0.788381743,0.790021942,0.791738176,0.793030784,0.793769416,0.794540636,0.794703569,0.794117008,0.793432687,0.792172666,0.790021942,0.788055875,0.785253416,0.781973018,0.778616584,0.774901697,0.771121635,0.767482783,0.763778758,0.75996611,0.75740262,0.753959288,0.751298038,0.749679564,0.748180574,0.747843844,0.747941605,0.748843171,0.75058113,0.753492212,0.75687037,0.760965436,0.766005518,0.771664748,0.77719363,0.7838196,0.790880059,0.798461906,0.806456518,0.814309922,0.82204384,0.830049315,0.838456692,0.846494754,0.853946254,0.861506376,0.868284417,0.874986422,0.881199626,0.886706785,0.892029285,0.897264887,0.90192479,0.906074167,0.910799244,0.914633616,0.918446264,0.921867872,0.924626882,0.92747279,0.930362147,0.932045795,0.933588234,0.935630336,0.936336382,0.936998979,0.938769525,0.939834025,0.939149703,0.939366948,0.938954183,0.938085203,0.935760683,0.933218918,0.930275249,0.925886902,0.9206513,0.913710326,0.906074167,0.897525581,0.887391106,0.875279703,0.862560014,0.848569442,0.834307315,0.820153809,0.806499967,0.791184202,0.774315135,0.756066564,0.737231431,0.717755426,0.697671135,0.677239252,0.655688558,0.634518042,0.61244596,0.589102996,0.566759358,0.544068128,0.520453607,0.498316352,0.48272903,0.473420086,0.459342617,0.430546805,0.396743499,0.366111968,0.342519172,0.325443723,0.312626274,0.301351263,0.289902457,0.277410875,0.263615824,0.248604202,0.23161565,0.212465512,0.190263084,0.165410267,0.139883991,0.118659164,0.103528057,0.090949577,0.080293715,0.070039756,0.061817036,0.052660164,0.044470031,0.036584041,0.029675653,0.023972975,0.018226847,0.013089005,0.008689796,0.004258,0\nSRI-0000311.txt,NC1=CC=C(C=C1)C(=O)OC1CC2CCC1C2,0.448073454,0.441834469,0.432475993,0.418438278,0.402840818,0.383084034,0.360207758,0.335251821,0.308216222,0.279100962,0.249465787,0.220350527,0.192795013,0.167111194,0.144546868,0.125829915,0.11075237,0.098638342,0.090215713,0.084496644,0.081481135,0.080493296,0.081429143,0.083872746,0.087668128,0.09281529,0.099158257,0.10669703,0.115587582,0.125881906,0.13716407,0.149798013,0.163731744,0.179230421,0.195654547,0.213877581,0.23359797,0.254332195,0.276927716,0.300854221,0.326340472,0.353246092,0.381357915,0.410493972,0.440903821,0.472348302,0.504427079,0.53709856,0.570352347,0.603606133,0.636215224,0.668174421,0.700294792,0.730839819,0.75958074,0.787365017,0.813537556,0.838420705,0.861619328,0.88243154,0.90184518,0.91922595,0.935026178,0.94920427,0.961229912,0.97223652,0.981662585,0.988956998,0.994707262,0.998388262,1,0.999396898,0.996178622,0.989783663,0.980867115,0.968524324,0.952354957,0.931792304,0.90878605,0.880596239,0.849120563,0.814665772,0.776545578,0.735659435,0.691742184,0.646369171,0.599207649,0.551131076,0.502534587,0.455139103,0.408429908,0.363342848,0.320704589,0.280333162,0.243138417,0.209182745,0.17837776,0.150567488,0.126562996,0.105303657,0.087065026,0.071529955,0.058225321,0.047322696,0.03820858,0.030825782,0.02462839,0.019673597,0.015649452,0.012436375,0.010127951,0.008058688,0.006238984,0.005360327,0.00436209,0.003327458,0.002989513,0.002495594,0.00227203,0.001824903,0.00153375,0.001538949,0.001024233,0.000961843,0.00098264,0.001050229,0.000837064,0.000821466,0.000696687,0.000509517,0.000436729,0.000363941,0.000561509,0.000504318,0.000582305,0.000462725,0.00049392,0.000317148,0.000343144,0.000545911,0.000441928,0.000343144,0.000249559,0.000395136,0.000254759,0.000265157,0.000311949,0.000223564,0.000171572,0.000129979,0.000119581,0.000114381,0.000114381,0.000109182,0.000103983,9.88E-05,9.36E-05,9.36E-05,0.000103983,0.000119581,0.00012478,0.000140377,0.000161174,0.000161174,0.000140377,0.000155975,0.000166373,0.000223564,0.000207966,7.8E-05,7.28E-05,0.000140377,0,0.000140377,0.000218364,7.28E-05,0.00012478,0.000140377,0.000192369,0.000259958,0.000161174\n"
  },
  {
    "path": "samples/dataset_and_preset.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# Dataset\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**Dataset** is a abstraction of local file system.\\n\",\n    \"Users can add their local paths into this system to easily access the data inside.\\n\",\n    \"The basic concept is to treat a data file as a property of a ``Dataset`` object.\\n\",\n    \"When users call these properties, ``Dataset`` will load the data files automatically.\\n\",\n    \"\\n\",\n    \"The following tutorial shows how easy it is to interactive with data in this system.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<Dataset> includes:\\n\",\n       \"\\\"data1\\\": /Users/liuchang/projects/xenonpy/samples/set1/data1.pd.xz\\n\",\n       \"\\\"data2\\\": /Users/liuchang/projects/xenonpy/samples/set2/data2.pd.xz\"\n      ]\n     },\n     \"execution_count\": 1,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.datatools import Dataset\\n\",\n    \"\\n\",\n    \"# use dir path as parameters when initlization\\n\",\n    \"ds = Dataset('set1', 'set2')\\n\",\n    \"ds\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <th>1</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>4</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"   0  1\\n\",\n       \"0  1  2\\n\",\n       \"1  3  4\"\n      ]\n     },\n     \"execution_count\": 2,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# load data\\n\",\n    \"\\n\",\n    \"ds.data1\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<Dataset> includes:\\n\",\n       \"\\\"data1\\\": /Users/liuchang/projects/xenonpy/samples/set1/data1.csv\\n\",\n       \"\\\"data2\\\": /Users/liuchang/projects/xenonpy/samples/set2/data2.csv\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# change backend\\n\",\n    \"\\n\",\n    \"ds_csv = ds.csv\\n\",\n    \"ds_csv\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>Unnamed: 0</th>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <th>1</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>4</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"   Unnamed: 0  0  1\\n\",\n       \"0           0  1  2\\n\",\n       \"1           1  3  4\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"ds_csv.data2\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<Dataset> includes:\\n\",\n       \"\\\"data1\\\": /Users/liuchang/projects/xenonpy/samples/set1/data1.pkl.z\\n\",\n       \"\\\"data2\\\": /Users/liuchang/projects/xenonpy/samples/set2/data2.pkl.z\"\n      ]\n     },\n     \"execution_count\": 5,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# set backend at init\\n\",\n    \"\\n\",\n    \"ds = Dataset('set1', 'set2', backend='pickle')\\n\",\n    \"ds\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# Preset\\n\",\n    \"\\n\",\n    \"Currently, two sets of element-level property data are available (``elements`` and ``elements_completed`` (imputed version of ``elements``)).\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>atomic_number</th>\\n\",\n       \"      <th>atomic_radius</th>\\n\",\n       \"      <th>atomic_radius_rahm</th>\\n\",\n       \"      <th>atomic_volume</th>\\n\",\n       \"      <th>atomic_weight</th>\\n\",\n       \"      <th>boiling_point</th>\\n\",\n       \"      <th>brinell_hardness</th>\\n\",\n       \"      <th>bulk_modulus</th>\\n\",\n       \"      <th>c6</th>\\n\",\n       \"      <th>c6_gb</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>vdw_radius_bondi</th>\\n\",\n       \"      <th>vdw_radius_dreiding</th>\\n\",\n       \"      <th>vdw_radius_mm3</th>\\n\",\n       \"      <th>vdw_radius_rt</th>\\n\",\n       \"      <th>vdw_radius_truhlar</th>\\n\",\n       \"      <th>vdw_radius_uff</th>\\n\",\n       \"      <th>sound_velocity</th>\\n\",\n       \"      <th>vickers_hardness</th>\\n\",\n       \"      <th>Polarizability</th>\\n\",\n       \"      <th>youngs_modulus</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>H</th>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>79.0</td>\\n\",\n       \"      <td>154.0</td>\\n\",\n       \"      <td>14.1</td>\\n\",\n       \"      <td>1.008000</td>\\n\",\n       \"      <td>20.280</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>6.499027</td>\\n\",\n       \"      <td>6.51</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>319.5</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>1270.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>He</th>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>134.0</td>\\n\",\n       \"      <td>31.8</td>\\n\",\n       \"      <td>4.002602</td>\\n\",\n       \"      <td>4.216</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>1.420000</td>\\n\",\n       \"      <td>1.47</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>140.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>153.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>236.2</td>\\n\",\n       \"      <td>970.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>0.205052</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Li</th>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>220.0</td>\\n\",\n       \"      <td>13.1</td>\\n\",\n       \"      <td>6.940000</td>\\n\",\n       \"      <td>1118.150</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>11.0</td>\\n\",\n       \"      <td>1392.000000</td>\\n\",\n       \"      <td>1410.00</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>181.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>255.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>245.1</td>\\n\",\n       \"      <td>6000.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>24.330000</td>\\n\",\n       \"      <td>4.9</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Be</th>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>112.0</td>\\n\",\n       \"      <td>219.0</td>\\n\",\n       \"      <td>5.0</td>\\n\",\n       \"      <td>9.012183</td>\\n\",\n       \"      <td>3243.000</td>\\n\",\n       \"      <td>600.0</td>\\n\",\n       \"      <td>130.0</td>\\n\",\n       \"      <td>227.000000</td>\\n\",\n       \"      <td>214.00</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>223.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>153.0</td>\\n\",\n       \"      <td>274.5</td>\\n\",\n       \"      <td>13000.0</td>\\n\",\n       \"      <td>1670.0</td>\\n\",\n       \"      <td>5.600000</td>\\n\",\n       \"      <td>287.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>B</th>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>98.0</td>\\n\",\n       \"      <td>205.0</td>\\n\",\n       \"      <td>4.6</td>\\n\",\n       \"      <td>10.810000</td>\\n\",\n       \"      <td>3931.000</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>320.0</td>\\n\",\n       \"      <td>99.500000</td>\\n\",\n       \"      <td>99.20</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>402.0</td>\\n\",\n       \"      <td>215.0</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>192.0</td>\\n\",\n       \"      <td>408.3</td>\\n\",\n       \"      <td>16200.0</td>\\n\",\n       \"      <td>49000.0</td>\\n\",\n       \"      <td>3.030000</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>5 rows × 74 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"    atomic_number  atomic_radius  atomic_radius_rahm  atomic_volume  \\\\\\n\",\n       \"H               1           79.0               154.0           14.1   \\n\",\n       \"He              2            NaN               134.0           31.8   \\n\",\n       \"Li              3          155.0               220.0           13.1   \\n\",\n       \"Be              4          112.0               219.0            5.0   \\n\",\n       \"B               5           98.0               205.0            4.6   \\n\",\n       \"\\n\",\n       \"    atomic_weight  boiling_point  brinell_hardness  bulk_modulus           c6  \\\\\\n\",\n       \"H        1.008000         20.280               NaN           NaN     6.499027   \\n\",\n       \"He       4.002602          4.216               NaN           NaN     1.420000   \\n\",\n       \"Li       6.940000       1118.150               NaN          11.0  1392.000000   \\n\",\n       \"Be       9.012183       3243.000             600.0         130.0   227.000000   \\n\",\n       \"B       10.810000       3931.000               NaN         320.0    99.500000   \\n\",\n       \"\\n\",\n       \"      c6_gb  ...  vdw_radius_bondi  vdw_radius_dreiding  vdw_radius_mm3  \\\\\\n\",\n       \"H      6.51  ...             120.0                319.5           162.0   \\n\",\n       \"He     1.47  ...             140.0                  NaN           153.0   \\n\",\n       \"Li  1410.00  ...             181.0                  NaN           255.0   \\n\",\n       \"Be   214.00  ...               NaN                  NaN           223.0   \\n\",\n       \"B     99.20  ...               NaN                402.0           215.0   \\n\",\n       \"\\n\",\n       \"    vdw_radius_rt  vdw_radius_truhlar  vdw_radius_uff  sound_velocity  \\\\\\n\",\n       \"H           110.0                 NaN           288.6          1270.0   \\n\",\n       \"He            NaN                 NaN           236.2           970.0   \\n\",\n       \"Li            NaN                 NaN           245.1          6000.0   \\n\",\n       \"Be            NaN               153.0           274.5         13000.0   \\n\",\n       \"B             NaN               192.0           408.3         16200.0   \\n\",\n       \"\\n\",\n       \"    vickers_hardness  Polarizability  youngs_modulus  \\n\",\n       \"H                NaN        0.666793             NaN  \\n\",\n       \"He               NaN        0.205052             NaN  \\n\",\n       \"Li               NaN       24.330000             4.9  \\n\",\n       \"Be            1670.0        5.600000           287.0  \\n\",\n       \"B            49000.0        3.030000             NaN  \\n\",\n       \"\\n\",\n       \"[5 rows x 74 columns]\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.datatools import preset\\n\",\n    \"\\n\",\n    \"preset.elements.head(5)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>atomic_number</th>\\n\",\n       \"      <th>atomic_radius</th>\\n\",\n       \"      <th>atomic_radius_rahm</th>\\n\",\n       \"      <th>atomic_volume</th>\\n\",\n       \"      <th>atomic_weight</th>\\n\",\n       \"      <th>boiling_point</th>\\n\",\n       \"      <th>bulk_modulus</th>\\n\",\n       \"      <th>c6_gb</th>\\n\",\n       \"      <th>covalent_radius_cordero</th>\\n\",\n       \"      <th>covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>num_s_valence</th>\\n\",\n       \"      <th>period</th>\\n\",\n       \"      <th>specific_heat</th>\\n\",\n       \"      <th>thermal_conductivity</th>\\n\",\n       \"      <th>vdw_radius</th>\\n\",\n       \"      <th>vdw_radius_alvarez</th>\\n\",\n       \"      <th>vdw_radius_mm3</th>\\n\",\n       \"      <th>vdw_radius_uff</th>\\n\",\n       \"      <th>sound_velocity</th>\\n\",\n       \"      <th>Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>H</th>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>79.000000</td>\\n\",\n       \"      <td>154.0</td>\\n\",\n       \"      <td>14.1</td>\\n\",\n       \"      <td>1.008000</td>\\n\",\n       \"      <td>20.280</td>\\n\",\n       \"      <td>56.79964</td>\\n\",\n       \"      <td>6.51</td>\\n\",\n       \"      <td>31.0</td>\\n\",\n       \"      <td>32.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.122728</td>\\n\",\n       \"      <td>0.1805</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>1270.0</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>He</th>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>147.832643</td>\\n\",\n       \"      <td>134.0</td>\\n\",\n       \"      <td>31.8</td>\\n\",\n       \"      <td>4.002602</td>\\n\",\n       \"      <td>4.216</td>\\n\",\n       \"      <td>85.10663</td>\\n\",\n       \"      <td>1.47</td>\\n\",\n       \"      <td>28.0</td>\\n\",\n       \"      <td>46.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>5.188000</td>\\n\",\n       \"      <td>0.1513</td>\\n\",\n       \"      <td>140.0</td>\\n\",\n       \"      <td>143.0</td>\\n\",\n       \"      <td>153.0</td>\\n\",\n       \"      <td>236.2</td>\\n\",\n       \"      <td>970.0</td>\\n\",\n       \"      <td>0.205052</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Li</th>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>155.000000</td>\\n\",\n       \"      <td>220.0</td>\\n\",\n       \"      <td>13.1</td>\\n\",\n       \"      <td>6.940000</td>\\n\",\n       \"      <td>1118.150</td>\\n\",\n       \"      <td>11.00000</td>\\n\",\n       \"      <td>1410.00</td>\\n\",\n       \"      <td>128.0</td>\\n\",\n       \"      <td>133.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>3.489000</td>\\n\",\n       \"      <td>85.0000</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>212.0</td>\\n\",\n       \"      <td>255.0</td>\\n\",\n       \"      <td>245.1</td>\\n\",\n       \"      <td>6000.0</td>\\n\",\n       \"      <td>24.330000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Be</th>\\n\",\n       \"      <td>4.0</td>\\n\",\n       \"      <td>112.000000</td>\\n\",\n       \"      <td>219.0</td>\\n\",\n       \"      <td>5.0</td>\\n\",\n       \"      <td>9.012183</td>\\n\",\n       \"      <td>3243.000</td>\\n\",\n       \"      <td>130.00000</td>\\n\",\n       \"      <td>214.00</td>\\n\",\n       \"      <td>96.0</td>\\n\",\n       \"      <td>102.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>1.824000</td>\\n\",\n       \"      <td>190.0000</td>\\n\",\n       \"      <td>153.0</td>\\n\",\n       \"      <td>198.0</td>\\n\",\n       \"      <td>223.0</td>\\n\",\n       \"      <td>274.5</td>\\n\",\n       \"      <td>13000.0</td>\\n\",\n       \"      <td>5.600000</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>B</th>\\n\",\n       \"      <td>5.0</td>\\n\",\n       \"      <td>98.000000</td>\\n\",\n       \"      <td>205.0</td>\\n\",\n       \"      <td>4.6</td>\\n\",\n       \"      <td>10.810000</td>\\n\",\n       \"      <td>3931.000</td>\\n\",\n       \"      <td>320.00000</td>\\n\",\n       \"      <td>99.20</td>\\n\",\n       \"      <td>84.0</td>\\n\",\n       \"      <td>85.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>1.025000</td>\\n\",\n       \"      <td>27.0000</td>\\n\",\n       \"      <td>192.0</td>\\n\",\n       \"      <td>191.0</td>\\n\",\n       \"      <td>215.0</td>\\n\",\n       \"      <td>408.3</td>\\n\",\n       \"      <td>16200.0</td>\\n\",\n       \"      <td>3.030000</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>5 rows × 58 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"    atomic_number  atomic_radius  atomic_radius_rahm  atomic_volume  \\\\\\n\",\n       \"H             1.0      79.000000               154.0           14.1   \\n\",\n       \"He            2.0     147.832643               134.0           31.8   \\n\",\n       \"Li            3.0     155.000000               220.0           13.1   \\n\",\n       \"Be            4.0     112.000000               219.0            5.0   \\n\",\n       \"B             5.0      98.000000               205.0            4.6   \\n\",\n       \"\\n\",\n       \"    atomic_weight  boiling_point  bulk_modulus    c6_gb  \\\\\\n\",\n       \"H        1.008000         20.280      56.79964     6.51   \\n\",\n       \"He       4.002602          4.216      85.10663     1.47   \\n\",\n       \"Li       6.940000       1118.150      11.00000  1410.00   \\n\",\n       \"Be       9.012183       3243.000     130.00000   214.00   \\n\",\n       \"B       10.810000       3931.000     320.00000    99.20   \\n\",\n       \"\\n\",\n       \"    covalent_radius_cordero  covalent_radius_pyykko  ...  num_s_valence  \\\\\\n\",\n       \"H                      31.0                    32.0  ...            1.0   \\n\",\n       \"He                     28.0                    46.0  ...            2.0   \\n\",\n       \"Li                    128.0                   133.0  ...            1.0   \\n\",\n       \"Be                     96.0                   102.0  ...            2.0   \\n\",\n       \"B                      84.0                    85.0  ...            2.0   \\n\",\n       \"\\n\",\n       \"    period  specific_heat  thermal_conductivity  vdw_radius  \\\\\\n\",\n       \"H      1.0       1.122728                0.1805       110.0   \\n\",\n       \"He     1.0       5.188000                0.1513       140.0   \\n\",\n       \"Li     2.0       3.489000               85.0000       182.0   \\n\",\n       \"Be     2.0       1.824000              190.0000       153.0   \\n\",\n       \"B      2.0       1.025000               27.0000       192.0   \\n\",\n       \"\\n\",\n       \"    vdw_radius_alvarez  vdw_radius_mm3  vdw_radius_uff  sound_velocity  \\\\\\n\",\n       \"H                120.0           162.0           288.6          1270.0   \\n\",\n       \"He               143.0           153.0           236.2           970.0   \\n\",\n       \"Li               212.0           255.0           245.1          6000.0   \\n\",\n       \"Be               198.0           223.0           274.5         13000.0   \\n\",\n       \"B                191.0           215.0           408.3         16200.0   \\n\",\n       \"\\n\",\n       \"    Polarizability  \\n\",\n       \"H         0.666793  \\n\",\n       \"He        0.205052  \\n\",\n       \"Li       24.330000  \\n\",\n       \"Be        5.600000  \\n\",\n       \"B         3.030000  \\n\",\n       \"\\n\",\n       \"[5 rows x 58 columns]\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"preset.elements_completed.head(5)\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.6.8\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 2\n}\n"
  },
  {
    "path": "samples/iQSPR.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# XenonPy-iQSPR tutorial\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"This tutorial provides step by step guidance to all the essential components for running iQSPR, an inverse molecular design algorithm based on machine learning. We provide a set of in-house data and pre-trained models for demonstration purpose. We reserve all rights for using these resources outside of this tutorial. We recommend readers to have prior knowledge about python programming, use of numpy and pandas packages, building models with scikit-learn, and understanding on the fundamental functions of XenonPy (refer to the tutorial on the descriptor calculation and model building with XenonPy). For any question, please contact the developer of XenonPy.\\n\",\n    \"\\n\",\n    \"Overview - We are interested in finding molecular structures 𝑆 such that their properties 𝑌 have a high probability of falling into a target region 𝑈, i.e., we want to sample from the posterior probability 𝑝(𝑆|𝑌∈𝑈) that is proportional to 𝑝(𝑌∈𝑈|𝑆)𝑝(𝑆) by the Bayes’ theorem. 𝑝(𝑌∈𝑈|𝑆) is the likelihood function that can be derived from any machine learning models predicting 𝑌 for a given 𝑆. 𝑝(𝑆) is the prior that represents all possible candidates of S to be considered. iQSPR is a numerical implementation for this Bayesian formulation based on sequential Monte Carlo sampling, which requires a likelihood model and a prior model, to begin with.\\n\",\n    \"\\n\",\n    \"This tutorial will proceed as follow:\\n\",\n    \"1. initial setup and data preparation\\n\",\n    \"2. descriptor preparation for forward model (likelihood)\\n\",\n    \"3. forward model (likelihood) preparation\\n\",\n    \"4. `NGram` (prior) preparation\\n\",\n    \"5. a complete iQSPR run\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"'0.6.2'\"\n      ]\n     },\n     \"execution_count\": 2,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"import xenonpy\\n\",\n    \"xenonpy.__version__\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Useful functions\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"First, we import some basic libraries and functions that are not directly related to the use of iQSPR. You may look into the \\\"tools.ipynb\\\" for the content. We also pre-set a numpy random seed for reproducibility. The same seed number is used throughout this tutorial.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run tools.ipynb\\n\",\n    \"\\n\",\n    \"np.random.seed(201906)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Data preparation (in-house data)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Here is a data set that contains 16674 SMILES randomly selected from pubchem with 2 material properties, the internal energy E (kJ/mol) and the HOMO-LUMO gap (eV). The property values are obtained from single-point calculations in DFT (density functional theory) simulations, with compounds geometry optimized at the B3LYP/6-31G(d) level of theory using GAMESS. This data set is prepared by our previous developers of iQSPR. XenonPy supports pandas dataframe as the main input source. When there are mismatch in the number of data points available in each material property, i.e., there exists missing values, please simply fill in the missing values with NaN, and XenonPy will automatically handle them during model training.\\n\",\n    \"\\n\",\n    \"You can download the in-house data at https://github.com/yoshida-lab/XenonPy/releases/download/v0.4.1/iQSPR_sample_data.csv\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"Index(['SMILES', 'E', 'HOMO-LUMO gap'], dtype='object')\"\n      ]\n     },\n     \"execution_count\": 5,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>SMILES</th>\\n\",\n       \"      <th>E</th>\\n\",\n       \"      <th>HOMO-LUMO gap</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>CC(=O)OC(CC(=O)[O-])C[N+](C)(C)C</td>\\n\",\n       \"      <td>177.577</td>\\n\",\n       \"      <td>4.352512</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>CC(=O)OC(CC(=O)O)C[N+](C)(C)C</td>\\n\",\n       \"      <td>185.735</td>\\n\",\n       \"      <td>7.513497</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>C1=CC(C(C(=C1)C(=O)O)O)O</td>\\n\",\n       \"      <td>98.605</td>\\n\",\n       \"      <td>4.581348</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>CC(CN)O</td>\\n\",\n       \"      <td>83.445</td>\\n\",\n       \"      <td>8.034841</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>5</th>\\n\",\n       \"      <td>C(C(=O)COP(=O)(O)O)N</td>\\n\",\n       \"      <td>90.877</td>\\n\",\n       \"      <td>5.741310</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                             SMILES        E  HOMO-LUMO gap\\n\",\n       \"1  CC(=O)OC(CC(=O)[O-])C[N+](C)(C)C  177.577       4.352512\\n\",\n       \"2     CC(=O)OC(CC(=O)O)C[N+](C)(C)C  185.735       7.513497\\n\",\n       \"3          C1=CC(C(C(=C1)C(=O)O)O)O   98.605       4.581348\\n\",\n       \"4                           CC(CN)O   83.445       8.034841\\n\",\n       \"5              C(C(=O)COP(=O)(O)O)N   90.877       5.741310\"\n      ]\n     },\n     \"execution_count\": 5,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# load in-house data\\n\",\n    \"data = pd.read_csv(\\\"./iQSPR_sample_data.csv\\\", index_col=0)\\n\",\n    \"\\n\",\n    \"# take a look at the data\\n\",\n    \"data.columns\\n\",\n    \"data.head()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Let us visualize some statistics of the data set. We can see that the mean character length of the SMILES is around 30. This roughly corresponds to around 20 tokens in iQSPR due to the way we combine some characters into a single token to be handled during the molecule modification step. Furthermore, the data shows a clear Pareto front at the high HOMO-LUMO gap region and the lack of molecules for HOMO-LUMO gap below 3. In this tutorial, we will try to populate the region of HOMO-LUMO gap less than 3 and internal energy less than 200.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 432x288 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# check the SMILES length\\n\",\n    \"count = [len(x) for x in data['SMILES']]\\n\",\n    \"_ = plt.hist(count, bins=20)  # arguments are passed to np.histogram\\n\",\n    \"_ = plt.title('Histogram for length of SMILES strings')\\n\",\n    \"_ = plt.xlabel('SMILES length (counting characters)')\\n\",\n    \"_ = plt.ylabel('Counts')\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 360x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# check target properties: E & HOMO-LUMO gap\\n\",\n    \"_ = plt.figure(figsize=(5,5))\\n\",\n    \"_ = plt.scatter(data['E'],data['HOMO-LUMO gap'],s=15,c='b',alpha = 0.1)\\n\",\n    \"_ = plt.title('iQSPR sample data')\\n\",\n    \"_ = plt.xlabel('Internal energy')\\n\",\n    \"_ = plt.ylabel('HOMO-LUMO gap')\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"A complete iQSPR run may take a very long time. For practical purposes, the full design process can be separately done in multiple steps, and we recommend taking advantage of parallel computing if possible. To save time in this tutorial, we will extract only a subset of the full in-house data set for demonstration. You will see that the subset represents the full data set in our target property space well. Readers can try to repeat this tutorial with the full data set if sufficient computing resource is available.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {\n    \"scrolled\": true\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"   index                               SMILES        E  HOMO-LUMO gap\\n\",\n      \"0  23630            CC(C)CN1CC(C1)C2=CC=CC=C2  193.542       5.914093\\n\",\n      \"1  19222               C1=CC(=CN=C1)C(=O)OCCO  110.998       5.186226\\n\",\n      \"2  20189  C1=CC(=CC=C1CC(C(=O)O)N)N(CCCl)CCCl  202.960       5.400097\\n\",\n      \"3   7775                    CCCCCC(=O)OCC(C)C  191.230       7.727368\\n\",\n      \"4  11881         C1=CC(=C(C=C1O)C(=O)O)C(=O)O   91.482       4.856441\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 360x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"np.random.seed(201903) # fix the random seed\\n\",\n    \"\\n\",\n    \"# extract a subset from the full data set\\n\",\n    \"data_ss = data.sample(3000).reset_index()\\n\",\n    \"print(data_ss.head())\\n\",\n    \"\\n\",\n    \"# check target properties: E & HOMO-LUMO gap\\n\",\n    \"_ = plt.figure(figsize=(5,5))\\n\",\n    \"_ = plt.scatter(data['E'],data['HOMO-LUMO gap'],s=15,c='b',alpha = 0.1,label=\\\"full data\\\")\\n\",\n    \"_ = plt.scatter(data_ss['E'],data_ss['HOMO-LUMO gap'],s=15,c='r',alpha = 0.1,label=\\\"subset\\\")\\n\",\n    \"_ = plt.legend(loc='upper right')\\n\",\n    \"_ = plt.title('iQSPR sample data')\\n\",\n    \"_ = plt.xlabel('Internal energy')\\n\",\n    \"_ = plt.ylabel('HOMO-LUMO gap')\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Descriptor and forward model preparation\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"XenonPy provides out-of-the-box fingerprint calculators. We currently support all fingerprints and descriptors in the RDKit (Mordred will be added soon). In this tutorial, we only use the ECFP + MACCS in RDKit. You may combine as many descriptors as you need. We currently support `input_type` to be 'smiles' or 'mols' (the RDKit internal mol format) and some of the basic options in RDKit fingerprints. The output will be a pandas dataframe that is supported scikit-learn when building forward model with various machine learning methods.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.descriptor import Fingerprints\\n\",\n    \"\\n\",\n    \"RDKit_FPs = Fingerprints(featurizers=['ECFP', 'MACCS'], input_type='smiles')\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"To get the calculated fingerprints, simply use the transform function. The column names are pre-defined in XenonPy.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"   maccs:0  maccs:1  maccs:2  maccs:3  maccs:4  maccs:5  maccs:6  maccs:7  \\\\\\n\",\n      \"0        0        0        0        0        0        0        0        0   \\n\",\n      \"1        0        0        0        0        0        0        0        0   \\n\",\n      \"2        0        0        0        0        0        0        0        0   \\n\",\n      \"3        0        0        0        0        0        0        0        0   \\n\",\n      \"4        0        0        0        0        0        0        0        0   \\n\",\n      \"\\n\",\n      \"   maccs:8  maccs:9  ...  ecfp6:2038  ecfp6:2039  ecfp6:2040  ecfp6:2041  \\\\\\n\",\n      \"0        1        0  ...           0           0           0           0   \\n\",\n      \"1        0        0  ...           0           0           0           0   \\n\",\n      \"2        0        0  ...           0           0           0           0   \\n\",\n      \"3        0        0  ...           0           0           0           0   \\n\",\n      \"4        0        0  ...           0           0           0           0   \\n\",\n      \"\\n\",\n      \"   ecfp6:2042  ecfp6:2043  ecfp6:2044  ecfp6:2045  ecfp6:2046  ecfp6:2047  \\n\",\n      \"0           0           0           0           0           0           0  \\n\",\n      \"1           0           0           0           0           0           0  \\n\",\n      \"2           0           0           0           0           0           0  \\n\",\n      \"3           0           0           0           0           0           0  \\n\",\n      \"4           0           0           0           0           0           0  \\n\",\n      \"\\n\",\n      \"[5 rows x 2215 columns]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"tmp_FPs = RDKit_FPs.transform(data_ss['SMILES'])\\n\",\n    \"print(tmp_FPs.head())\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"XenonPy also allows users to flexibly organize the desired descriptors. The first step is to import `BaseDescriptor` and all necessary descriptors (fingerprints) supported by XenonPy, which will be used to construct a customized set of descriptors for forward prediction. Then, users can simply pack all descriptors needed in the `BaseDescriptor`. For other descriptors, users can use the `BaseFeaturizer` class to construct for their own needs. If so, we would appreciate very much if you could share the code as a contribution to this project: https://github.com/yoshida-lab/XenonPy/tree/master/xenonpy/contrib. \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# XenonPy descriptor calculation library\\n\",\n    \"from xenonpy.descriptor.base import BaseDescriptor\\n\",\n    \"from xenonpy.descriptor import ECFP, MACCS\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Defining your own `BaseDescriptor` allows you to customize the options for each fingerprint you wanted. You may combine multiple descriptors by adding more \\\"self.XXX\\\" in the `BaseDescriptor`. All descriptors with the same name \\\"XXX\\\" will be concatenated as one long descriptor. \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 13,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# prepare descriptor function from XenonPy (possible to combine multiple descriptors)\\n\",\n    \"class RDKitDesc(BaseDescriptor):\\n\",\n    \"    def __init__(self, n_jobs=-1, on_errors='nan'):\\n\",\n    \"        super().__init__()\\n\",\n    \"        self.n_jobs = n_jobs\\n\",\n    \"\\n\",\n    \"        self.rdkit_fp = ECFP(n_jobs, on_errors=on_errors, input_type='smiles')\\n\",\n    \"        self.rdkit_fp = MACCS(n_jobs, on_errors=on_errors, input_type='smiles')\\n\",\n    \"\\n\",\n    \"ECFP_plus_MACCS = RDKitDesc()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"   ecfp6:0  ecfp6:1  ecfp6:2  ecfp6:3  ecfp6:4  ecfp6:5  ecfp6:6  ecfp6:7  \\\\\\n\",\n      \"0        0        1        0        0        0        0        0        0   \\n\",\n      \"1        0        0        0        0        0        0        0        0   \\n\",\n      \"2        0        1        0        0        0        0        0        0   \\n\",\n      \"3        0        1        0        0        0        0        0        0   \\n\",\n      \"4        0        0        0        0        0        0        0        0   \\n\",\n      \"\\n\",\n      \"   ecfp6:8  ecfp6:9  ...  maccs:157  maccs:158  maccs:159  maccs:160  \\\\\\n\",\n      \"0        0        0  ...          0          1          0          1   \\n\",\n      \"1        0        0  ...          1          0          1          0   \\n\",\n      \"2        0        0  ...          1          1          1          0   \\n\",\n      \"3        0        0  ...          1          0          1          1   \\n\",\n      \"4        0        0  ...          1          0          1          0   \\n\",\n      \"\\n\",\n      \"   maccs:161  maccs:162  maccs:163  maccs:164  maccs:165  maccs:166  \\n\",\n      \"0          1          1          1          0          1          0  \\n\",\n      \"1          1          1          1          1          1          0  \\n\",\n      \"2          1          1          1          1          1          0  \\n\",\n      \"3          0          0          0          1          0          0  \\n\",\n      \"4          0          1          1          1          1          0  \\n\",\n      \"\\n\",\n      \"[5 rows x 2215 columns]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"tmp_FPs = ECFP_plus_MACCS.transform(data_ss['SMILES'])\\n\",\n    \"print(tmp_FPs.head())\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### train forward models inside XenonPy\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 1-2min to complete!</span>**\\n\",\n    \"\\n\",\n    \"The prepared descriptor class will be added to the forward model class used in iQSPR. The forward model calculates the likelihood value for a given molecule. iQSPR provides a Gaussian likelihood template, but users can also write their own BaseLogLikelihood class. To prepare the Gaussian likelihood, iQSPR provides two options:\\n\",\n    \"1. use the default setting - Bayesian linear model\\n\",\n    \"2. use your own pre-trained model that output mean and standard deviation.\\n\",\n    \"\\n\",\n    \"Here, we start with the first option. Note that there are a few ways to set the target region of the properties.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 29.6 s, sys: 363 ms, total: 30 s\\n\",\n      \"Wall time: 30.9 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# Forward model template in XenonPy-iQSPR \\n\",\n    \"from xenonpy.inverse.iqspr import GaussianLogLikelihood\\n\",\n    \"\\n\",\n    \"# write down list of property name(s) for forward models and decide the target region\\n\",\n    \"# (they will be used as a key in whole iQSPR run)\\n\",\n    \"prop = ['E','HOMO-LUMO gap']\\n\",\n    \"target_range = {'E': (0,200), 'HOMO-LUMO gap': (-np.inf, 3)}\\n\",\n    \"\\n\",\n    \"# import descriptor class to iQSPR and set the target of region of the properties\\n\",\n    \"prd_mdls = GaussianLogLikelihood(descriptor=RDKit_FPs, targets = target_range)\\n\",\n    \"\\n\",\n    \"# train forward models inside iQSPR\\n\",\n    \"prd_mdls.fit(data_ss['SMILES'], data_ss[prop])\\n\",\n    \"\\n\",\n    \"# target region can also be updated afterward\\n\",\n    \"prd_mdls.update_targets(reset=True,**target_range)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"The variable directly contains models for each property trained this way. Note that the input of these models is the preset descriptor (RDKit_FPs in this case).\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"BayesianRidge(compute_score=True)\"\n      ]\n     },\n     \"execution_count\": 16,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"prd_mdls['E']\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"The variable can be also used for prediction directly from mol/smiles, where the output is a dataframe.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 17,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"      E: mean     E: std  HOMO-LUMO gap: mean  HOMO-LUMO gap: std\\n\",\n      \"0  216.536505  30.798743             6.448873            0.665549\\n\",\n      \"1  149.048033  30.669020             5.069425            0.662847\\n\",\n      \"2  196.936252  29.520508             5.396384            0.642558\\n\",\n      \"3  223.675992  29.193763             7.784497            0.634831\\n\",\n      \"4   87.747905  30.040543             4.707319            0.648994\\n\",\n      \"CPU times: user 3.77 s, sys: 137 ms, total: 3.9 s\\n\",\n      \"Wall time: 4.84 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"pred = prd_mdls.predict(data_ss['SMILES'])\\n\",\n    \"print(pred.head())\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Let us take a look at the distribution of the likelihood values for all the molecules in our data as a validation. Note that directly calling the object is equivalent to calling the `log_likelihood` function. The output will be a pandas dataframe with properties on the columns. To get the final log-likelihood, you can simply sum over the columns. You will see that all molecules have a small likelihood because they are far from our target region. Note that when setting the target region for the likelihood calculation, \\\"np.inf\\\" is supported. Also, we use only log-likelihood in iQSPR to avoid numerial issue.\\n\",\n    \"\\n\",\n    \"Note that we can also update the target region when calling the `log_likelihood` function, but this will automatically overwrite the existing target region!\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"          E  HOMO-LUMO gap\\n\",\n      \"0 -1.218542     -16.024975\\n\",\n      \"1 -0.049529      -7.015274\\n\",\n      \"2 -0.613727      -9.251676\\n\",\n      \"3 -1.566933     -31.356100\\n\",\n      \"4 -0.001840      -5.458423\\n\",\n      \"CPU times: user 3.71 s, sys: 120 ms, total: 3.83 s\\n\",\n      \"Wall time: 4.76 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# calculate log-likelihood for a given target property region\\n\",\n    \"tmp_ll = prd_mdls(data_ss['SMILES'], **target_range)\\n\",\n    \"print(tmp_ll.head())\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 19,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"iVBORw0KGgoAAAANSUhEUgAAAfYAAAFNCAYAAADy5k0KAAAAOXRFWHRTb2Z0d2FyZQBNYXRwbG90bGliIHZlcnNpb24zLjMuMiwgaHR0cHM6Ly9tYXRwbG90bGliLm9yZy8vihELAAAACXBIWXMAAAsTAAALEwEAmpwYAAAxbUlEQVR4nO3de1RU9f7/8edwN8FvSUOWefScTC0Ltfz+krzl/QaiaH4xl2lmmrfUTEPBKG+hYaVpauWp7zra8YII5tdLaqmVHkv7HpMu6Nc0JY1QShkUGJj9+4PlECk3ZQbcvB5ruZaz956937xn4DX7s/fsbTEMw0BERERMwaOqCxAREZHKo2AXERExEQW7iIiIiSjYRURETETBLiIiYiIKdhERERNRsIvbHThwgNDQ0HItu2fPHt544w0AmjZtSmZmJrt27WLOnDkADB06lG3btlVo+5W1nopo1aoVaWlp2Gw2Ro4cSU5OzjWX+/zzz+nUqRMDBw4scZnySExMJCIigr59+9KnTx+io6PJyspyzmvatCmLFy8u9hzDMOjSpYvztUlLS6NVq1ZX/f9a23r44YcJDw8v9m/atGnOZd59913Cw8Pp27cvoaGhzJ8/n7y8vKvWdeTIEZ577rkK/azffPMNL730ElCx91Z5zZo1i7feeqvM5UaMGEFmZmalbvvPSnsdrsfu3btZtGhRpa1Pqgevqi5ApCQ2m434+HjWrVtXbHqXLl3o0qXLDa+/stZTEf7+/oSGhrJo0SJefPHFq+b/z//8D48//jhjx4697m188803LF26lA0bNnDrrbdSUFDAK6+8wssvv8zChQsBuOuuu9i0aVOxED148CA5OTnUqlWrwtts3bo1K1asuOa8rVu3snPnTtauXYufnx+5ubk899xzLFmyhOeff77Ysg8++OBVHzjK8n//93+kp6dXuObK9sUXX1R1CRV25MgRLly4UNVlSCVTsEuVioqKwt/fn9TUVH755ReaNm3K/PnzqV27Nh9++CHt2rW7KmgSExPZvn17sSDJz89nypQpeHl5MX/+fC5fvszcuXM5evQodrudkJAQpk2bhpeXV4nr2bVrFytXruTcuXOEhIQwZ84cPDw82LlzJ0uWLMHhcFC7dm2mT59OcHAwdruduLg49u/fj6enJ8HBwUyfPh1/f38OHjzI7NmzsVgsPPjggzgcDud2e/XqRXx8PE8//TS33367c/p7773Hrl278PX1JSsri+eff77E9Xfu3Jng4GBSU1N5/vnn6datm3M9GRkZGIbh3OP39PRk4sSJHDt2zLlMkyZNOHv2LF9//TUPPfQQABs3bqRv37589tlnlfHSFqunoKCAnJwc/Pz88PX1ZebMmdfcuz1w4ACzZ89m8+bNpb43rjh79iyLFy8mKyuL6dOn069fPy5dusTkyZP58ccfyc3NZc6cObRu3Zq8vDzi4+P56quvKCgo4P777ycmJgZ/f/9iNdhsNqKjo/nhhx8ICgrC09OThx9+GIBPP/2UFStWkJeXR2ZmJv369WPSpElMnz4dgGHDhvHOO+/www8/XHO5P/vwww9Zs2YN3t7e+Pr6MmvWLBo3bkznzp1ZtGgRDz74IIDz8W233YbD4SA6Oppvv/0WLy8vYmJiaNmyJcePHyc6Opq8vDwMw2DgwIEMGTIEgGXLlvHxxx/jcDioX78+sbGx/PLLL6xZs4aCggICAgKYPHlypbzeUvU0FC9VLiUlhZUrV7JlyxZ+/vln55D4tm3beOyxx8p8vt1uZ+LEiQQGBhIfH4+Xlxfz5s2jefPmJCYmkpSUxG+//cb7779f6nqys7NZs2YNW7ZsYe/evXz99dccP36c2NhY3nrrLece7tixY7HZbCxbtoxff/2V5ORkkpOTcTgcLFiwgLy8PCZOnEhUVBRJSUk88sgjxYbVfX19eeCBB9izZ0+x7Y8cOZLOnTszfPhwXnzxxRLXf8W9997L1q1bi4U6QIcOHWjVqhWdO3emf//+zJo1iyNHjvDII48UW65fv34kJycDcPnyZQ4dOkT79u3L7Pe1HDx48Kqh+A0bNgDQv39/6tSpQ7t27fiv//ov4uLiOHv2LMHBwWWut6T3xhV33nknzz33HK1bt+bVV18F4JdffmH48OEkJycTGRnpHEZ/55138PT0JDExkU2bNhEUFER8fPxV21y8eDF+fn5s27aNRYsWceLECaDwUMXf//534uLiSExMZO3atbzzzjtkZmY6t/3f//3f1KtXr8Tl/qigoIB58+bx3nvvsWHDBgYNGsShQ4fK7ElOTg5t27YlKSmJSZMmMXHiRPLy8li5ciWdO3cmMTGRd955h4MHD+JwOEhKSuLo0aOsX7+e5ORkOnbsSExMDC1atCAyMpLevXsr1E1Ge+xS5dq3b4+Pjw9QuCd5ZWjwxIkTNGzYsMznz58/n+zsbHbs2IHFYgEKjx0eOXKEhIQEgHIdr+7duzeenp7UqlWLRo0acf78eVJTU2nTpg0NGjQAICQkhLp165KSksLevXuZPHky3t7eQOFx+nHjxnH06FG8vLwICQkBIDQ01HkM+Iq7777bGRglKWn9V7Ru3fqaz/P29mbhwoVMmzaNAwcO8NVXX/Hiiy8SEhLCm2++6VwuLCyM8PBwoqOj2bFjB507d8bT07PMPl1LaUPxAQEB/P3vf+f06dP861//4ssvv2TUqFE88cQTTJ06tdT1lvTeKE2DBg1o0aIFAM2aNXN+wNi9ezdZWVns27cPKPxAGBgYeNXz9+/fz4wZM7BYLNStW9f5wclisbB8+XJ2797N5s2bOX78OIZhcPny5WLPL+9ynp6e9OzZk8jISB577DHatWtHx44dy/z56tSpQ+/evQFo164dAD/++CPdunXjxRdf5JtvviEkJISYmBg8PDz49NNPOXLkCAMGDADA4XBcVYuYi4Jdqpyfn5/z/xaLhSu3L7BYLMWGsEvSt29fDMMgJiaG5cuXA4V/vBYtWsQ999wDwMWLF52hX5I/DtNfqcPhcFz1PMMwyM/Pv2qew+HAbrc7lylp3VAYvmWFaGnrB7jllluu+byEhARuu+02unTpQt++fenbty9jxoyhc+fOxfYarVYr999/P3v37iUpKYmoqCh+++23Umu6Hu+++y4PP/wwDz30EA0aNODxxx/n4MGDPPPMM2UGe0nvjdJc+SD05+c4HA5mzJjhDM/s7Gxyc3OvuY4/bufK63Tp0iX69+9P165dad26NQMGDGDnzp1X1VTe5QDi4+M5evQo+/bt45133iE5Odl5Mtsfl//jiYYeHsUHWh0OB97e3nTq1Int27ezb98+9u/fz9KlS0lMTMThcDBy5EieeOIJ57p0XN3cNBQv1VajRo04depUmcsFBwczadIkTp065TzRrl27dnzwwQcYhkFeXh5jxoxh1apVFa4hJCSEzz//nNOnTwOFe3Nnz56lRYsWtG/fnn/+85/Y7XYcDgerV6+mbdu2NG3aFMMwnEPtu3btuuoPaVpaGn/9619L3XZJ6y+Lh4cH8fHx/PLLL85px44d46677uI//uM/ii3br18/3n//fbKysmjSpEm5elJROTk5LFy4kN9//9057ejRo9x///2Vsn5PT0/y8/PLXK5du3asXr2avLw8HA4HM2fO5PXXX79qufbt25OQkIDD4eDChQvs2rULgJ9++gmbzcakSZPo3LkzBw4ccK7rj3WUtdwVmZmZdOzYkVtvvZXhw4czadIkjhw5AuAcFYLC8w4yMjKcz/v999/59NNPAfjkk0/w8/OjYcOGTJkyhS1bttCnTx9iY2Px9/fn1KlTtGvXjoSEBGw2GwCLFi1yfmOhvL2Tm4v22KXa6tmzJ5999hlt2rQpc1lfX1/i4uIYMWIEbdq0ITo6mrlz5xIWFobdbufRRx9l5MiRFa6hcePGxMbGMn78eAoKCvDz82P58uUEBAQwZswY5s+fT79+/cjPzyc4OJiZM2fi7e3N0qVLefnll3n99de57777ig355uXl8e9//5u5c+eWuu2S1l+WiIgILl++zDPPPENeXh4Wi4VGjRqxcuXKq0YJunbtSmxsbLmOsV66dOmqr1qtWbMGKDrG/kdXjmePHTsWi8VCZGSkcxTmgQceKHZY4Ea0bNmSpUuXMn78eIYOHVricmPHjmX+/Pn079+fgoIC7rvvPqKioq5absKECcTGxtKrVy/q1q3r/MDTtGlTHnvsMXr16oWPjw9NmjShcePG/PTTT/zlL3+hZ8+eDB06lEWLFpW63BV169ZlzJgxDB8+HD8/Pzw9PZ1fv3zhhRd4+eWXWbt2Lc2bN6d58+bO5wUGBvLxxx/z5ptvUqtWLd566y28vLwYO3Ys0dHRrF27Fk9PT7p27cp//ud/0rp1a9LT0xk0aBAWi4U777yTuLg4ANq0acMLL7zA7Nmzy/XekpuDRbdtlerKZrMxaNAgNmzYcF1fwaquEhMTOXbs2DW/7iYicqM0FC/Vlr+/P88//zzLli2r6lIqTXZ2Nps3b2bChAlVXYqImJT22EVERExEe+wiIiImomAXERExEQW7iIiIiSjYRURETMQ032P/7bdsHA73nQcYGOjP+fM2t22vOlMvCqkPRdSLIupFIfWhyI32wsPDwm231S5xvmmC3eEw3BrsV7YphdSLQupDEfWiiHpRSH0o4speaCheRETERBTsIiIiJqJgFxERMREFu4iIiIko2EVERExEwS4iImIiCnYRERETUbCLiIiYiIJdRETERExz5TkREameAurUAsBqDbjm/JzcfLIuXnZnSaamYBcREZfy8/UibEpyifM/WhhOlhvrMTsFu4iI3JCAOrXw81WcVBd6JURE5IaUZ49c3Ecnz4mIiJiIgl1ERMREFOwiIiImomAXERExEZcG+5IlS+jTpw99+vRhwYIFAOzbt4+wsDC6d+/OG2+84Vz2+++/JyIigh49ehAdHU1+fr4rSxMRETEllwX7vn37+Pzzz9m4cSNJSUl8++23bN68mRkzZvD222+zZcsWUlJS2LNnDwBTp07lpZdeYvv27RiGwbp161xVmoiIiGm5LNitVitRUVH4+Pjg7e3NPffcw8mTJ2nYsCENGjTAy8uLsLAwtm3bxs8//0xOTg4tW7YEICIigm3btrmqNBEREdNyWbDfe++9zqA+efIkW7duxWKxYLVancsEBQWRnp7Or7/+Wmy61WolPT3dVaWJiIiYlssvUHPs2DFGjx7NtGnT8PT05OTJk855hmFgsVhwOBxYLJarpldEYKB/ZZVcbiVd97gmUi8KqQ9F1Isi6kXZalqPXPnzujTYDx06xHPPPceMGTPo06cPX375JRkZGc75GRkZBAUFUa9evWLTz507R1BQUIW2df68DYfDqLTay2K1BpCRoasbg3pxhfpQRL0oUhN6URkhZfYe/dGNvic8PCyl7sy6bCj+7NmzjBs3jvj4ePr06QNAixYtOHHiBD/99BMFBQVs3ryZDh06UL9+fXx9fTl06BAAycnJdOjQwVWliYiImJbL9thXrlxJbm4ucXFxzmmRkZHExcUxYcIEcnNz6dixIz179gQgPj6emJgYbDYbzZs358knn3RVaSIiIqblsmCPiYkhJibmmvM2bdp01bRmzZqRkJDgqnJERERqBN3dTUREqrXy3BY2JzefrIuX3VRR9aZgFxGRaq2s28JC4a1ha87pd6XTteJFRERMRMEuIiJiIgp2ERERE1Gwi4iImIiCXURExEQU7CIiIiaiYBcRETERBbuIiIiJKNhFRERMRMEuIiJiIgp2ERERE1Gwi4iImIiCXURExEQU7CIiIiai27aKiEiVyrMXYLUGVHUZpqFgFxGRKuXj7Vnq/dY/Whhe5jrK+nCQk5tP1sXL11XfzUbBLiIiN73yfDjIcmM9VUnH2EVERExEwS4iImIiCnYRERETcekxdpvNRmRkJMuXL+f48eO8/vrrznnp6em0aNGCFStWsGTJEjZs2ECdOnUAGDRoEEOGDHFlaSIiIqbksmA/fPgwMTExnDx5EoCOHTvSsWNHADIyMhg8eDDTp08HICUlhddff51WrVq5qhwREZEawWVD8evWrSM2NpagoKCr5i1YsIDIyEgaNWoEFAb7ihUrCAsLY9asWeTm5rqqLBEREVNzWbDPnTuX1q1bXzX95MmTfPnllzz55JMAZGdnc9999zF16lQ2btzIxYsXefvtt11VloiIiKm5/Xvsa9eu5YknnsDHxweA2rVr8+677zrnjxgxghkzZjB58uQKrTcw0L9S6ywPXSmpiHpRSH0ool4UUS+qh+r0OriyFrcH+65du1i5cqXz8ZkzZ9i3bx8DBw4EwDAMvLwqXtb58zYcDqPS6iyL1RpARkZNudxB6dSLQupDEfWiSE3oRXUKzNJUl9fhRt8THh6WUndm3fp1t8zMTHJycmjQoIFzmp+fH6+99hqnT5/GMAxWr15Nt27d3FmWiIiIabh1jz0tLY169eoVm1a3bl1mzZrFmDFjsNvtPPTQQzz11FPuLEtERMQ0XB7sn3zyifP/wcHBrFu37qplevToQY8ePVxdioiIiOnpynMiIiImomAXERExEQW7iIiIieh+7CIiYnp59oJSv5aXk5tP1sXLbqzIdRTsIiJiej7enoRNSS5x/kcLw6ke33K/cRqKFxERMREFu4iIiIloKF5EREoVUKcWfr6Ki5uFXikRESmVn69XmcenpfrQULyIiIiJKNhFRERMRMEuIiJiIgp2ERERE1Gwi4iImIiCXURExEQU7CIiIiaiYBcRETERBbuIiIiJKNhFRERMRMEuIiJiIgp2ERERE1Gwi4iImIhLg91msxEaGkpaWhoA06dPp3v37oSHhxMeHs6OHTsA+P7774mIiKBHjx5ER0eTn5/vyrJERERMy2W3bT18+DAxMTGcPHnSOS0lJYVVq1YRFBRUbNmpU6cyZ84cWrZsyYwZM1i3bh1PPPGEq0oTEREpJs9egNUaUOL8nNx8si5edmNF189lwb5u3TpiY2OZNm0aAJcvX+bMmTPMmDGD9PR0unXrxvjx4zl79iw5OTm0bNkSgIiICBYvXqxgFxERt/Hx9izznvNZbqznRrgs2OfOnVvs8blz52jTpg2xsbEEBAQwevRoEhISuPfee7Farc7lrFYr6enpripLRETE1FwW7H/WoEEDli5d6nw8dOhQkpKSuOeee7BYLM7phmEUe1xegYH+lVJnRZQ2bFPTqBeF1Ici6kUR9cIcKvN1dOV7wm3BnpqaysmTJ+nRowdQGOBeXl7Uq1ePjIwM53Lnzp276hh8eZw/b8PhMCqt3rJYrQFkZNwsAzOupV4UUh+KqBdFzNALfTApVFmv442+Jzw8LKXuzLrt626GYTBv3jwuXLiA3W5n7dq1dOvWjfr16+Pr68uhQ4cASE5OpkOHDu4qS0RExFTctsferFkzRo0axeDBg8nPz6d79+6EhoYCEB8fT0xMDDabjebNm/Pkk0+6qywRERFTcXmwf/LJJ87/DxkyhCFDhly1TLNmzUhISHB1KSIiIqanK8+JiIiYiIJdRETERBTsIiIiJqJgFxERMREFu4iIiIko2EVERExEwS4iImIiCnYRERETUbCLiIiYiIJdRETERBTsIiIiJqJgFxERMREFu4iIiIko2EVERExEwS4iImIiCnYRERETUbCLiIiYiIJdRETERLyqugAREalaAXVq4eerODALvZIiIjWcn68XYVOSS5z/0cJwN1YjN0pD8SIiIiaiYBcRETERlwa7zWYjNDSUtLQ0ANauXUtoaChhYWFMnz6dvLw8AJYsWUKnTp0IDw8nPDyc1atXu7IsERER03LZMfbDhw8TExPDyZMnAThx4gQrV64kMTGR2rVrExUVxYcffsjw4cNJSUnh9ddfp1WrVq4qR0REpEZw2R77unXriI2NJSgoCAAfHx9iY2Px9/fHYrHQpEkTzpw5A0BKSgorVqwgLCyMWbNmkZub66qyRERETM1le+xz584t9rh+/frUr18fgMzMTFavXs2rr75KdnY29913H1OnTqVhw4ZERUXx9ttvM3ny5AptLzDQv9JqLy+rNcDt26yu1ItC6kMR9aJIVfciz16Aj7dnldZgBpX5OrryPeH2r7ulp6czcuRIBgwYwCOPPALAu+++65w/YsQIZsyYUeFgP3/ehsNhVGqtpbFaA8jIyHLb9qoz9aKQ+lBEvShSHXphtQbo62yVoLJexxt9T3h4WErdmXXrWfHHjx8nMjKS/v37M27cOADOnDlDQkKCcxnDMPDy0tfrRURErke5g/306dMA7N69m6VLl5KVVbFPGzabjaeffpqJEycyYsQI53Q/Pz9ee+01Tp8+jWEYrF69mm7dulVo3SIiIlKoXMH+0ksv8e6773L8+HFiYmJIS0tjxowZFdpQQkIC586d4/3333d+rW3RokXUrVuXWbNmMWbMGHr27IlhGDz11FPX9cOIiIjUdOUa805JSSEhIYF33nmH/v37M2XKFCIiIsq1gU8++QSA4cOHM3z48Gsu06NHD3r06FG+ikVERKRE5dpjNwwDDw8PvvjiC9q0aQNATk6OSwsTERGRiitXsP/lL3/hmWeeIS0tjf/3//4fU6ZMoWnTpq6uTURERCqoXEPxr776Kjt27ODhhx/G29ub1q1b079/f1fXJiIiIhVUrj32OXPmEB4ezt133w3A4MGDmTZtmksLExERqS7y7AVYrQEl/guoU6uqS3QqdY89NjaW9PR0Dh06RGZmpnN6fn6+8+tvIiIiZufj7VnmRX6qyyWZSg32gQMHcuzYMVJTU4udte7p6UnLli1dXZuIiIhUUKnB/uCDD/Lggw/y6KOPUq9ePXfVJCIiItepXCfPnT17lqlTp3LhwgUMo+h67B999JHLChMREZGKK1ewv/TSS0RERHD//fdjsVhcXZOIiIhcp3IFu5eXly7zKiIichMo19fd7r33XlJTU11di4iIiNygcu2xnz59mgEDBnDXXXfh6+vrnK5j7CIiItVLuYJ98uTJrq5DREREKkG5gr1JkyaurkNEREQqQbmCvU2bNlgsFgzDcJ4Vb7Va2bt3r0uLExERkYopV7D/8MMPzv/n5eWxefNmTpw44bKiRERE5PqU66z4P/Lx8SEiIoIvvvjCFfWIiEgFBdSpVeoNSqRmKdce+++//+78v2EYpKSkcPHiRVfVJCIiFeDn61XmDUqk5qjwMXaAwMBAoqOjXVqYiIiIVFyFj7GLiIhI9VWuYHc4HKxcuZK9e/eSn59P27ZtefbZZ/HyKtfTRURExE3KdfLcwoUL+de//sWwYcN46qmn+N///V8WLFjg6tpERESkgsoV7J999hnLly+na9eudO/enWXLlpXrO+w2m43Q0FDS0tIA2LdvH2FhYXTv3p033njDudz3339PREQEPXr0IDo6mvz8/Ov8cURERGq2cgW7YRh4e3s7H/v4+BR7fC2HDx9m8ODBnDx5EoCcnBxmzJjB22+/zZYtW0hJSWHPnj0ATJ06lZdeeont27djGAbr1q27zh9HRESkZitXsDdr1ox58+Zx6tQpTp8+zbx588q8zOy6deuIjY0lKCgIgG+++YaGDRvSoEEDvLy8CAsLY9u2bfz888/k5OTQsmVLACIiIti2bduN/VQiIiI1VLnOfouNjWXOnDlERkbicDho3749M2fOLPU5c+fOLfb4119/xWq1Oh8HBQWRnp5+1XSr1Up6enpFfgYAAgP9K/ycG6ULPxRRLwqpD0XUiyLqRc1QkdfZle+JUoM9Ly+PmTNn0rVrV+Li4gAYNWoUnp6e+PtXLEgdDofzOvOA87rzJU2vqPPnbTgcRoWfd72s1gAyMrLctr3qTL0opD4UUS+KuKMX+uBQPZT3db7R94SHh6XUndlSh+IXL16MzWbjoYceck6bPXs2Fy9e5K233qpQIfXq1SMjI8P5OCMjg6CgoKumnzt3zjl8LyIiIhVTarDv3r2bhQsXEhgY6Jx2xx13sGDBAnbu3FmhDbVo0YITJ07w008/UVBQwObNm+nQoQP169fH19eXQ4cOAZCcnEyHDh2u40cRERGRUofivb298fPzu2q6v78/Pj4+FdqQr68vcXFxTJgwgdzcXDp27EjPnj0BiI+PJyYmBpvNRvPmzXnyyScrtG4REREpVGqwe3h4YLPZrjqebrPZyv1d808++cT5/5CQEDZt2nTVMs2aNSMhIaFc6xMREZGSlToUHxoaSkxMDJcuXXJOu3TpEjExMXTv3t3lxYmIiEjFlBrsw4YNIyAggLZt2zJo0CAGDhxI27ZtqVOnDuPGjXNXjSIiIlJOZQ7Fz549m2effZZvv/0WDw8PgoODdda6iIhINVWuC9TUr1+f+vXru7oWERERuUHluqSsiIiI3BwU7CIiIiaiYBcRETERBbuIiIiJKNhFRERMpFxnxYuISNUJqFMLP1/9uZby0TtFRKSa8/P1ImxKconzP1oY7sZqpLrTULyIiIiJKNhFRERMRMEuIiJiIgp2ERERE1Gwi4iImIiCXURExEQU7CIiIiaiYBcRETERBbuIiIiJKNhFRERMRMEuIiJiIm6/Vvz69etZtWqV83FaWhrh4eFcvnyZQ4cOUatWLQDGjx9Pt27d3F2eiIjITc3twf7444/z+OOPA3Ds2DHGjRvH+PHjGTZsGKtWrSIoKMjdJYmIiJhGld7d7eWXX2by5MnUqlWLM2fOMGPGDNLT0+nWrRvjx4/Hw0NHCkTE3HRLVqlsVfZu2rdvHzk5OfTq1YvTp0/Tpk0bYmNjCQgIYPTo0SQkJDBo0KByry8w0N+F1V6b1Rrg9m1WV+pFIfWhiHpRpKxelHZLVtBtWW8WFXnPu/L3o8qCfc2aNTz11FMANGjQgKVLlzrnDR06lKSkpAoF+/nzNhwOo9LrLInVGkBGRpbbtledqReF1Ici6kWRsnqhD0DmUd73/I3+fnh4WErdma2Sse68vDy++uorOnfuDEBqairbt293zjcMAy8vDU2JiIhUVJUEe2pqKo0aNeKWW24BCoN83rx5XLhwAbvdztq1a3VGvIiIyHWokt3i06dPU69ePefjZs2aMWrUKAYPHkx+fj7du3cnNDS0KkoTESmmrJPbcnLzybp42Y0ViZSuSoK9d+/e9O7du9i0IUOGMGTIkKooR0SkRH6+XqWe3PbRwnB0NoFUJ/o+mYiIiIko2EVERExEwS4iImIiCnYRERETUbCLiIiYiIJdRETERBTsIiIiJqJgFxERMREFu4iIiIko2EVERExEwS4iImIiujeqiIgL5dkLdM91cSsFu4iIC/l4e5Z5ExmRyqSheBERERPRHruIyA3QULtUNwp2EZEboKF2qW40FC8iImIiCnYRERETUbCLiIiYiIJdRETERBTsIiIiJqJgFxERMZEq+brb0KFDyczMxMurcPOzZs0iOzubV199ldzcXHr16sXkyZOrojQREZGbmtuD3TAMTp48yaeffuoM9pycHHr27Mk//vEP7rzzTkaPHs2ePXvo2LGju8sTkRomoE4t/Hx1SQ8xD7e/m3/88UcARowYwe+//86gQYNo0qQJDRs2pEGDBgCEhYWxbds2BbuIuJyfr5cuMCOm4vZgv3jxIiEhIcycORO73c6TTz7JyJEjsVqtzmWCgoJIT0+v0HoDA/0ru9Qy6TKSRdSLQmbrQ569AB9vz+uab7ZeiJSlIu95V/5+uD3YW7VqRatWrZyPBw4cyOLFi3n44Yed0wzDwGKxVGi958/bcDiMSquzLFZrABkZWW7bXnWmXhQyYx+s1oAy92av9TPfTL3QBxCpLOV9z9/o74eHh6XUnVm3B/vBgwex2+2EhIQAhSFev359MjIynMtkZGQQFBTk7tJEpBoq6xh4Tm4+WRcvu7EikerN7cGelZXF4sWLWbNmDXa7nY0bN/LKK68wadIkfvrpJ+6++242b97MgAED3F2aiFRD5TkGXtq+j06Ok5rG7e/2Tp06cfjwYfr164fD4eCJJ56gVatWxMXFMWHCBHJzc+nYsSM9e/Z0d2kiYkI6OU5qmir5GDtp0iQmTZpUbFpISAibNm2qinJE5Cam+6GLFKfxKRG5qel+6CLFKdhFRERuUFkjR+48yVPBLiIicoPKM3Lkri+AKthFpErprHWRyqXfJhGpUjprXaRy6batIiIiJqJgFxERMRENxYuIy+j4uYj76TdORFymrOPnoGPoIpVNQ/EiIiImomAXERExEQW7iIiIiSjYRURETETBLiIiYiIKdhERERNRsIuIiJiIgl1ERMREdIEakZtYWVd2c+c9oEWkelCwi1Rj5bkka3W5B7SIVA8KdpEqVBnBXZo8ewFWa0CJ83PzCvD18Sy9SBG5qSjYRaqQq+9F7uPtWeb6XfXBobQPFCLiOgp2Eblu5fngICLuVSXBvmTJErZu3QpAx44dmTZtGtOnT+fQoUPUqlULgPHjx9OtW7eqKE9EROSm5fZg37dvH59//jkbN27EYrEwcuRIduzYQUpKCqtWrSIoKMjdJYmIiJiG27/HbrVaiYqKwsfHB29vb+655x7OnDnDmTNnmDFjBmFhYSxevBiHw+Hu0kRERG56bt9jv/fee53/P3nyJFu3bmX16tV8+eWXxMbGEhAQwOjRo0lISGDQoEHlXm9goL8ryi2VTg4qol4U+mMf8uwF+HjrjHMRKfTHvw+u/JtZZSfPHTt2jNGjRzNt2jT+9re/sXTpUue8oUOHkpSUVKFgP3/ehsNhuKLUa7JaA8jI0DeEQb244s99sFoDSj2xDHRymUhNcuXvw43+zfTwsJS6M1sll5Q9dOgQw4cPZ8qUKfTv35/U1FS2b9/unG8YBl5eOmFfRESkotwe7GfPnmXcuHHEx8fTp08foDDI582bx4ULF7Db7axdu1ZnxIuIiFwHt+8Wr1y5ktzcXOLi4pzTIiMjGTVqFIMHDyY/P5/u3bsTGhrq7tJERERuem4P9piYGGJiYq45b8iQIW6uRkRExFx021YRERET0RlqItfpWjdw0df+RKSqKdjFtG70XuWuvvOaiIgrKNjFtMpz57TSvknq6juviYi4go6xi4iImIiCXURExEQU7CIiIiaiYBcRETERnTwnNVaevUBfTxMR01GwS43l4+2ps95FxHQ0FC8iImIiCnYRERET0VC83LTKc2U4EZGaRn8V5aalK8OJiFxNQ/EiIiImomAXERExEQW7iIiIiegYu1yXP5+4dq0LveTmFeDr41niOsq6baqIiFScgl2uS1knrkHhyWs3cttUnfUuIlJx+qsp1ZbOehcRqTgFu1yT9pZFRG5O+sst16S9ZRGRm1O1Oiv+o48+onfv3nTv3p3Vq1dXdTkiIiI3nWqzx56ens4bb7xBYmIiPj4+REZG8sgjj9C4cWO311LWMHRuXgFw7TPBr6jqM77L+hmquj7QbVNFRFyh2gT7vn37aNOmDbfeeisAPXr0YNu2bYwfP75cz/fwsFRaLX6+Xjw95+MS56+M6V7qfIBlL3YpNbRyc/Ox2XKuu0Z/fz98yzgGXlqNZdUHEHRbrRuaX9YyPt6eZfb5Rmuo7vOrQw1VPb861FDd51eHGqr7/OpQQ1nz/5hTN5JZZT3XYhiGcd1rr0QrVqzg0qVLTJ48GYD169fzzTffMHv27CquTERE5OZRbY6xOxwOLJaiTyGGYRR7LCIiImWrNsFer149MjIynI8zMjIICgqqwopERERuPtUm2B999FH2799PZmYmly9f5uOPP6ZDhw5VXZaIiMhNpdqcPHfHHXcwefJknnzySex2OwMHDiQ4OLiqyxIREbmpVJuT50REROTGVZuheBEREblxCnYRERETUbCLiIiYiIJdRETERBTsIiIiJqJgr4Bff/2VUaNG0a9fPyIjI0lLSwPg4sWLjBo1il69ejFkyJBiF9oxq40bN9KuXTvCw8MJDw/njTfeAGpmL6747rvveOCBB5yPa1ovDh48SEREBGFhYTz77LNcuHABqHl9ADh06BADBw4kPDycYcOG8fPPPwM1sxdXvPnmm7z11lvOxzWxF267g6kh5TZs2DDjww8/NAzDMD788ENj4sSJhmEYxiuvvGKsWLHCMAzD2Lhxo3O6mc2aNcv46KOPrppeE3thGIZx6dIlIzIy0mjSpIlzWk3rRdeuXY1jx44ZhmEYr732mrFw4ULDMGpeHwzDMDp16mR8//33hmEYxvr1641nn33WMIya2YuLFy8a06dPN4KDg43Fixc7p9e0Xvzyyy9Gp06djN9++83Izs42wsLCnL8vlU177OWUmZnJDz/8QGRkJAADBgxg0qRJAOzevZuwsDAAQkND2bt3L3a7vapKdYsjR46wceNGwsLCeOGFF5x7ZzWxFwBxcXEMGzas2LSa1ostW7bQuHFj7HY76enp1KlTB6h5fcjLy2PixIk0a9YMgKZNm3L27Fmg5vUCYNeuXTRq1Iinnnqq2PSa1os/3sH0lltucd7B1BUU7OV0+vRp7rrrLuLi4hgwYADPPfcc3t7eQOEQvdVqBcDLywt/f38yMzOrslyXs1qtjB07lk2bNnHnnXcya9YsoGb2YteuXeTk5NCzZ89i02taL7y9vUlNTaVjx44cOHCAPn36ADWvDz4+PoSHhwOFN7dasmQJXbt2BWpeLwD69evHqFGj8PT0LDa9pvXijz8vQFBQEOnp6S7ZVrW5pGx1snXrVl599dVi0xo2bMh3333HhAkTmD59OuvXrycqKop//OMfVz3fMAw8PMzxmelavfjb3/7GBx984Hw8cuRIunXrds3n14Re2Gy2Yv0oiVl6Udp7omnTpuzbt481a9YwefJk1qxZc9XzzdIHKL0XeXl5REVFkZ+fz+jRo6/5/JrSi/IwUy+uxZ13MFWwX0OvXr3o1atXsWmnTp2if//+dOrUCSgcOpozZw5Q+Mnr3Llz1KtXj/z8fLKzs7n11lvdXbZLXKsXWVlZfPDBBwwfPhwofINe+TRe03qxfv16VqxYwZAhQ5zTwsPDWb16tWl7ca0+5ObmsnPnTueead++fZk/fz5Q894TANnZ2YwZM4Zbb72VZcuWOUf3amIvSmLmXlxLvXr1OHjwoPOxK+9gat6PR5XsL3/5C/Xq1WPPnj0AfPrppzRv3hyAjh07kpSUBBQeZ2zdurXzF9mMbrnlFt577z0OHz4MwKpVq5x77DWtF48//jg7d+4kOTmZ5ORkAJKTk/H3969RvfDy8uKVV14hJSUFKNx7e+ihh4Ca954AmDp1Kg0bNuTNN9/Ex8fHOb0m9qIkNa0X7ryDqW4CUwE//vgjsbGx/Pbbb/j7+xMXF0ejRo34/fffiYqK4vTp0wQEBBAfH8/dd99d1eW61MGDB5k7dy45OTk0atSIBQsWEBAQUCN78UdNmzYlNTUVoMb14uDBg8ybN4+CggLuuOMOZs2aRb169WpcH7777jv69+9P48aN8fIqHBQNCgri3XffrXG9+KMrX3WbMGECUPN+P6Dw624rVqxw3sH0mWeeccl2FOwiIiImoqF4ERERE1Gwi4iImIiCXURExEQU7CIiIiaiYBcRETERBbvITezAgQOEhoaWudyePXucd+Br2rQpmZmZ7Nq1y3mRpaFDh1b4utWVtZ6KaNWqFWlpadhsNkaOHElOTo7LtiVys9KV50RMzmazER8fz7p164pN79KlC126dLnh9VfWeirC39+f0NBQFi1axIsvvujWbYtUdwp2EROIiorC39+f1NRUfvnlF5o2bcr8+fOpXbs2H374Ie3ataNWrVrFnpOYmMj27dtZsWKFc1p+fj5TpkzBy8uL+fPnc/nyZebOncvRo0ex2+2EhIQwbdo054VXrrWeXbt2sXLlSs6dO0dISAhz5szBw8ODnTt3smTJEhwOB7Vr12b69OkEBwdjt9uJi4tj//79eHp6EhwczPTp0/H39+fgwYPMnj0bi8XCgw8+iMPhcG63V69exMfH8/TTT3P77be7uMMiNw8NxYuYREpKCitXrmTLli38/PPPziHxbdu28dhjj5X5fLvdzsSJEwkMDCQ+Ph4vLy/mzZtH8+bNSUxMJCkpid9++43333+/1PVkZ2ezZs0atmzZwt69e/n66685fvw4sbGxvPXWW2zatInnnnuOsWPHYrPZWLZsGb/++qvzsrwOh4MFCxY4b38aFRVFUlISjzzySLGhd19fXx544AHnZZ5FpJD22EVMon379s7rkjdp0oQLFy4AcOLECRo2bFjm8+fPn092djY7duxw3nVq9+7dHDlyhISEBIByHdPu3bs3np6e1KpVi0aNGnH+/HlSU1Np06YNDRo0ACAkJIS6deuSkpLC3r17mTx5svM64UOHDmXcuHEcPXoULy8vQkJCgMIbL7300kvFtnX33Xdz4sSJ8rRHpMZQsIuYhJ+fn/P/FouFK1eLtlgsxYawS9K3b18MwyAmJobly5cDhbeaXLRoEffccw8AFy9eLPNWk38cpr9Sx59vWQmFdwXMz8+/ap7D4cButzuXKWndUHgP+D/f51ukptNQvIjJNWrUiFOnTpW5XHBwMJMmTeLUqVPOE+3atWvHBx98gGEY5OXlMWbMGFatWlXhGkJCQvj88885ffo0APv37+fs2bO0aNGC9u3b889//hO73Y7D4WD16tW0bduWpk2bYhiGc6h9165dzlGIK9LS0vjrX/9a4XpEzEzBLmJyPXv25LPPPivXsr6+vsTFxbFgwQJOnTpFdHQ0ly5dIiwsjLCwMJo0acLIkSMrXEPjxo2JjY1l/PjxhIaGsnDhQpYvX05AQABjxozh9ttvp1+/fvTq1Yv8/Hyio6Px9vZm6dKlLFq0iPDwcHbs2EFgYKBznXl5efz73/+mc+fOFa5HxMx0dzcRk7PZbAwaNIgNGzZcdWb8zSwxMZFjx47p624if6I9dhGT8/f35/nnn2fZsmVVXUqlyc7OZvPmzc57e4tIEe2xi4iImIj22EVERExEwS4iImIiCnYRERETUbCLiIiYiIJdRETERP4/tChXTu+NnKsAAAAASUVORK5CYII=\\n\",\n      \"text/plain\": [\n       \"<Figure size 576x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 576x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# plot histogram of log-likelihood values\\n\",\n    \"tmp = tmp_ll.sum(axis = 1, skipna = True)\\n\",\n    \"\\n\",\n    \"_ = plt.figure(figsize=(8,5))\\n\",\n    \"_ = plt.hist(tmp, bins=50)\\n\",\n    \"_ = plt.title('ln(likelihood) for SMILES in the data subset')\\n\",\n    \"_ = plt.xlabel('ln(likelihood)')\\n\",\n    \"_ = plt.ylabel('Counts')\\n\",\n    \"_ = plt.show()\\n\",\n    \"\\n\",\n    \"# plot histogram of likelihood values\\n\",\n    \"_ = plt.figure(figsize=(8,5))\\n\",\n    \"_ = plt.hist(np.exp(tmp), bins=50)\\n\",\n    \"_ = plt.title('Likelihood for SMILES in the data subset')\\n\",\n    \"_ = plt.xlabel('Likelihood')\\n\",\n    \"_ = plt.ylabel('Counts')\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 20,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 432x360 with 2 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# check the predicted likelihood\\n\",\n    \"dot_scale = 0.1\\n\",\n    \"l_std = np.sqrt(pred['E: std']**2+pred['HOMO-LUMO gap: std']**2)\\n\",\n    \"\\n\",\n    \"_ = plt.figure(figsize=(6,5))\\n\",\n    \"rectangle = plt.Rectangle((0,0),200,3,fc='y',alpha=0.1)\\n\",\n    \"_ = plt.gca().add_patch(rectangle)\\n\",\n    \"im = plt.scatter(pred['E: mean'], pred['HOMO-LUMO gap: mean'], s=l_std*dot_scale, c=np.exp(tmp),alpha = 0.2,cmap=plt.get_cmap('cool'))\\n\",\n    \"_ = plt.title('Pubchem data')\\n\",\n    \"_ = plt.xlabel('E')\\n\",\n    \"_ = plt.ylabel('HOMO-LUMO gap')\\n\",\n    \"_ = plt.colorbar(im)\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 5-10min to complete!</span>**\\n\",\n    \"\\n\",\n    \"The second option is to prepare your own forward model. In fact, this may often be the case because you may want to first validate your model before using it. When the training takes a long time, you want to avoid repeating the calculation that is simply wasting computing resources. In this tutorial, we will use gradient boosting. Let us first verify the performance of the model on our data set using a 10-fold cross-validation.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 21,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 2min 36s, sys: 1.42 s, total: 2min 37s\\n\",\n      \"Wall time: 2min 46s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# forward model library from scikit-learn\\n\",\n    \"#from sklearn.ensemble import RandomForestRegressor\\n\",\n    \"#from sklearn.linear_model import ElasticNetCV\\n\",\n    \"from sklearn.ensemble import GradientBoostingRegressor\\n\",\n    \"#from sklearn.linear_model import ElasticNet\\n\",\n    \"# xenonpy library for data splitting (cross-validation)\\n\",\n    \"from xenonpy.datatools import Splitter\\n\",\n    \"\\n\",\n    \"np.random.seed(201906)\\n\",\n    \"\\n\",\n    \"# property name will be used as a reference for calling models\\n\",\n    \"prop = ['E','HOMO-LUMO gap']\\n\",\n    \"\\n\",\n    \"# prepare indices for cross-validation data sets\\n\",\n    \"sp = Splitter(data_ss.shape[0], test_size=0, k_fold=10)\\n\",\n    \"\\n\",\n    \"# initialize output variables\\n\",\n    \"y_trues, y_preds = [[] for i in range(len(prop))], [[] for i in range(len(prop))]\\n\",\n    \"y_trues_fit, y_preds_fit = [[] for i in range(len(prop))], [[] for i in range(len(prop))]\\n\",\n    \"mdls = {key: [] for key in prop}\\n\",\n    \"\\n\",\n    \"# cross-validation test\\n\",\n    \"for iTr, iTe in sp.cv():\\n\",\n    \"    x_train = data_ss['SMILES'].iloc[iTr]\\n\",\n    \"    x_test = data_ss['SMILES'].iloc[iTe]\\n\",\n    \"    \\n\",\n    \"    fps_train = RDKit_FPs.transform(x_train)\\n\",\n    \"    fps_test = RDKit_FPs.transform(x_test)\\n\",\n    \"    \\n\",\n    \"    y_train = data_ss[prop].iloc[iTr]\\n\",\n    \"    y_test = data_ss[prop].iloc[iTe]\\n\",\n    \"    for i in range(len(prop)):\\n\",\n    \"        #mdl = RandomForestRegressor(500, n_jobs=-1, max_features='sqrt')\\n\",\n    \"        #mdl = ElasticNetCV(cv=5)\\n\",\n    \"        mdl = GradientBoostingRegressor(loss='ls')\\n\",\n    \"        #mdl = ElasticNet(alpha=0.5)\\n\",\n    \"        \\n\",\n    \"        mdl.fit(fps_train, y_train.iloc[:,i])\\n\",\n    \"        prd_train = mdl.predict(fps_train)\\n\",\n    \"        prd_test = mdl.predict(fps_test)\\n\",\n    \"\\n\",\n    \"        y_trues[i].append(y_test.iloc[:,i].values)\\n\",\n    \"        y_trues_fit[i].append(y_train.iloc[:,i].values)\\n\",\n    \"        y_preds[i].append(prd_test)\\n\",\n    \"        y_preds_fit[i].append(prd_train)\\n\",\n    \"\\n\",\n    \"        mdls[prop[i]].append(mdl)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"You will see that the performance is not so bad, especially inside the target region that we are aiming at.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 22,\n   \"metadata\": {\n    \"scrolled\": true\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 360x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 360x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# plot results\\n\",\n    \"for i, x in enumerate(prop):\\n\",\n    \"    y_true = np.concatenate(y_trues[i])\\n\",\n    \"    y_pred = np.concatenate(y_preds[i])\\n\",\n    \"    y_true_fit = np.concatenate(y_trues_fit[i])\\n\",\n    \"    y_pred_fit = np.concatenate(y_preds_fit[i])\\n\",\n    \"    xy_min = min(np.concatenate([y_true,y_true_fit,y_pred,y_pred_fit]))*0.95\\n\",\n    \"    xy_max = max(np.concatenate([y_true,y_true_fit,y_pred,y_pred_fit]))*1.05\\n\",\n    \"    xy_diff = xy_max - xy_min\\n\",\n    \"    \\n\",\n    \"    _ = plt.figure(figsize=(5,5))\\n\",\n    \"    _ = plt.scatter(y_pred_fit, y_true_fit, c='b', alpha=0.1, label='train')\\n\",\n    \"    _ = plt.scatter(y_pred, y_true, c='r', alpha=0.2, label='test')\\n\",\n    \"    _ = plt.text(xy_min+xy_diff*0.7,xy_min+xy_diff*0.05,'MAE: %5.2f' % np.mean(np.abs(y_true - y_pred)),fontsize=12)\\n\",\n    \"    _ = plt.title('Property: ' + x)\\n\",\n    \"    _ = plt.xlim(xy_min,xy_max)\\n\",\n    \"    _ = plt.ylim(xy_min,xy_max)\\n\",\n    \"    _ = plt.legend(loc='upper left')\\n\",\n    \"    _ = plt.xlabel('Prediction')\\n\",\n    \"    _ = plt.ylabel('Observation')\\n\",\n    \"    _ = plt.plot([xy_min,xy_max],[xy_min,xy_max],ls=\\\"--\\\",c='k')\\n\",\n    \"    _ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Here, we define a class that return mean and std based on a list of models.\\n\",\n    \"Note that the class must have a function called \\\"predict\\\" that takes a descriptor input and return first mean, then standard deviation. Here, we add a constant noise variance to the model variable calculated from the bootstrapped models.\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 23,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"class bootstrap_fcn():\\n\",\n    \"    def __init__(self, ms, var):\\n\",\n    \"        self.Ms = ms\\n\",\n    \"        self.Var = var\\n\",\n    \"    def predict(self, x):\\n\",\n    \"        val = np.array([m.predict(x) for m in self.Ms])\\n\",\n    \"        return np.mean(val, axis = 0), np.sqrt(np.var(val, axis = 0) + self.Var)\\n\",\n    \"    \\n\",\n    \"# include basic measurement noise\\n\",\n    \"c_var = {'E': 650, 'HOMO-LUMO gap': 0.5}\\n\",\n    \"\\n\",\n    \"# generate a dictionary for the final models used to create the likelihood\\n\",\n    \"custom_mdls = {key: bootstrap_fcn(value, c_var[key]) for key, value in mdls.items()}\\n\",\n    \"    \\n\",\n    \"# import descriptor calculator and forward model to iQSPR\\n\",\n    \"prd_mdls = GaussianLogLikelihood(descriptor=RDKit_FPs, targets=target_range, **custom_mdls)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Once again, we can make predictions and calculate the likelihood values for the full data set.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 24,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"      E: mean     E: std  HOMO-LUMO gap: mean  HOMO-LUMO gap: std\\n\",\n      \"0  196.772149  26.245443             5.871948            0.707692\\n\",\n      \"1  124.620714  25.908334             5.461932            0.708542\\n\",\n      \"2  198.678938  26.283615             5.275575            0.708301\\n\",\n      \"3  222.938083  25.850088             7.515128            0.707791\\n\",\n      \"4   85.459304  25.555155             5.184740            0.708865\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 576x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 7.8 s, sys: 324 ms, total: 8.12 s\\n\",\n      \"Wall time: 9.92 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"pred = prd_mdls.predict(data_ss['SMILES'])\\n\",\n    \"print(pred.head())\\n\",\n    \"\\n\",\n    \"# calculate log-likelihood for a given target property region\\n\",\n    \"tmp_ll = prd_mdls.log_likelihood(data_ss['SMILES'])\\n\",\n    \"tmp = tmp_ll.sum(axis = 1, skipna = True)\\n\",\n    \"\\n\",\n    \"# plot histogram of likelihood values\\n\",\n    \"_ = plt.figure(figsize=(8,5))\\n\",\n    \"_ = plt.hist(np.exp(tmp), bins=50)\\n\",\n    \"_ = plt.title('Likelihood for SMILES in the data subset')\\n\",\n    \"_ = plt.xlabel('Likelihood')\\n\",\n    \"_ = plt.ylabel('Counts')\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 25,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 432x360 with 2 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# check the predicted likelihood\\n\",\n    \"dot_scale = 0.5\\n\",\n    \"l_std = np.sqrt(pred['E: std']**2+pred['HOMO-LUMO gap: std']**2)\\n\",\n    \"\\n\",\n    \"_ = plt.figure(figsize=(6,5))\\n\",\n    \"rectangle = plt.Rectangle((0,0),200,3,fc='y',alpha=0.1)\\n\",\n    \"_ = plt.gca().add_patch(rectangle)\\n\",\n    \"im = plt.scatter(pred['E: mean'], pred['HOMO-LUMO gap: mean'], s=l_std*dot_scale, c=np.exp(tmp),alpha = 0.2,cmap=plt.get_cmap('cool'))\\n\",\n    \"_ = plt.title('Pubchem data')\\n\",\n    \"_ = plt.xlabel('E')\\n\",\n    \"_ = plt.ylabel('HOMO-LUMO gap')\\n\",\n    \"_ = plt.colorbar(im)\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 1-2min to complete!</span>**\\n\",\n    \"\\n\",\n    \"Use of multiple likelihood models is also supported. It is unnecessary in this example, but we will demonstrate how to do it by naively creating separate models for the two properties. Note that you can assign different descriptors to different likelihood models.\\n\",\n    \"\\n\",\n    \"By creating your own `BaseLogLikelihoodSet` object, you can combine likelihood models as you need. However, make sure you setup the models before hand, including training of the models and setting up the target regions.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 26,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 31.1 s, sys: 342 ms, total: 31.4 s\\n\",\n      \"Wall time: 33.2 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"from xenonpy.inverse.base import BaseLogLikelihoodSet\\n\",\n    \"\\n\",\n    \"prd_mdl1 = GaussianLogLikelihood(descriptor = RDKit_FPs, targets = {'E': (0, 200)})\\n\",\n    \"prd_mdl2 = GaussianLogLikelihood(descriptor = ECFP_plus_MACCS, targets = {'HOMO-LUMO gap': (-np.inf, 3)})\\n\",\n    \"\\n\",\n    \"prd_mdl1.fit(data_ss['SMILES'], data_ss['E'])\\n\",\n    \"prd_mdl2.fit(data_ss['SMILES'], data_ss['HOMO-LUMO gap'])\\n\",\n    \"\\n\",\n    \"class MyLogLikelihood(BaseLogLikelihoodSet):\\n\",\n    \"    def __init__(self):\\n\",\n    \"        super().__init__()\\n\",\n    \"        \\n\",\n    \"        self.loglike = prd_mdl1\\n\",\n    \"        self.loglike = prd_mdl2\\n\",\n    \"        \\n\",\n    \"like_mdl = MyLogLikelihood()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Calculating likelihood values is the same as before, but `BaseLogLikelihoodSet` does not support direct prediction of the properties unless users define one themselves.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 27,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 576x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 6.56 s, sys: 217 ms, total: 6.77 s\\n\",\n      \"Wall time: 8.53 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# calculate log-likelihood for a given target property region\\n\",\n    \"tmp_ll = like_mdl(data_ss['SMILES'])\\n\",\n    \"tmp = tmp_ll.sum(axis = 1, skipna = True)\\n\",\n    \"\\n\",\n    \"# plot histogram of likelihood values\\n\",\n    \"_ = plt.figure(figsize=(8,5))\\n\",\n    \"_ = plt.hist(np.exp(tmp), bins=50)\\n\",\n    \"_ = plt.title('Likelihood for SMILES in the data subset')\\n\",\n    \"_ = plt.xlabel('Likelihood')\\n\",\n    \"_ = plt.ylabel('Counts')\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### N-gram preparation\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 3-5min to complete!</span>**\\n\",\n    \"\\n\",\n    \"For prior, which is simply a molecule generator, we currently provide a N-gram model based on the extended SMILES language developed by our previous iQSPR developers. \\n\",\n    \"\\n\",\n    \"Note that because the default sample_order in `NGram` is 10, setting train_order=5 (max order to be used in iQSPR) when fitting will cause a warning, and XenonPy will automatically set sample_order=5 (actual order to be used when running the iQSPR).\\n\",\n    \"\\n\",\n    \"There is a default lower bound to the train_order and sample_order = 1, representing to use at least one character as a reference for generating the next character. We do not recommend altering this number.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 28,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/opt/miniconda3/envs/MB16_xepy37_v06_test_env/lib/python3.7/site-packages/xenonpy/inverse/iqspr/modifier.py:169: RuntimeWarning: max <sample_order>: 10 is greater than max <train_order>: 5,max <sample_order> will be reduced to max <train_order>\\n\",\n      \"  (self.sample_order[1], self._train_order[1]), RuntimeWarning)\\n\",\n      \"100%|██████████| 3000/3000 [01:22<00:00, 36.26it/s]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 1min 22s, sys: 1.48 s, total: 1min 23s\\n\",\n      \"Wall time: 1min 22s\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"NGram(ngram_table=[[[              C     (    N     &    !     O   Cl  Br   F   S  ...  [Si]  [Se]  \\\\\\n\",\n       \"['C']      4670  2029  490  2371  621   534   38  19  34  57  ...    10     1   \\n\",\n       \"[')']      2023   417  716     0    0  1014  252  48  72  80  ...     3     0   \\n\",\n       \"['N']       381   261   29   187  318     9    1   0   0   1  ...     1     0   \\n\",\n       \"[0]         113     8   31     2  552    33   12   4   6   5  ...     0     0   \\n\",\n       \"['O']       787     0   11     0  715     7    0   0   0   4  ...    10     0   \\n\",\n       \"['Cl']        0     0    0     0  304     0    0   0   0   0  ...     0     0   \\n\",\n       \"['Br']        0     0    0     0   73     0    0   1   0   0  ...     0     0   \\n\",\n       \"['F']         0     0    0     0  112     0    0   0   0   0  ...     1     0   \\n\",\n       \"['S']        84    38    3     0   20     0    0   0   0   7  ...     0     0   \\n\",\n       \"['B']         0     4    0     0    0     0    0   0   0   0  ...     0     0   \\n\",\n       \"['[N+]']      0    84    0     1    0     0    0   0   0   0  ...     0     0   \\n\",\n       \"['[O-]']      0     0    0     0   85     0    0...\\n\",\n       \"['(', '=O', ')', 'C', '=C']  1  0  0   0  0  0  0   0  0\\n\",\n       \"['=O', ')', 'C', '=C', 'C']  0  0  0   0  0  0  0   0  1\\n\",\n       \"[1, 'C', '&', '=C', '(']     1  0  0   0  0  0  0   0  0\\n\",\n       \"['(', 'C', '=C', 'C', '=C']  0  0  0   0  0  0  0   0  1,\\n\",\n       \"                                                  =C  1  (  C\\n\",\n       \"['(', 'C', '=C', 'C', '&']    1  0  0  0\\n\",\n       \"['C', '=C', 'C', '&', '=C']   0  2  0  0\\n\",\n       \"['&', '=C', 1, 'C', '&']      1  0  0  0\\n\",\n       \"['=C', 1, 'C', '&', '=C']     0  0  1  0\\n\",\n       \"[1, 'C', '&', '=C', '(']      0  0  0  1\\n\",\n       \"['C', '&', '=C', '(', 'C']    1  0  0  0\\n\",\n       \"['&', '=C', '(', 'C', '=C']   0  1  0  0\\n\",\n       \"[')', 'C', '=C', 'C', '&']    1  0  0  0]]],\\n\",\n       \"      sample_order=(1, 5))\"\n      ]\n     },\n     \"execution_count\": 28,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# N-gram library in XenonPy-iQSPR\\n\",\n    \"from xenonpy.inverse.iqspr import NGram\\n\",\n    \"\\n\",\n    \"# initialize a new n-gram\\n\",\n    \"n_gram = NGram()\\n\",\n    \"\\n\",\n    \"# train the n-gram with SMILES of available molecules\\n\",\n    \"n_gram.fit(data_ss['SMILES'],train_order=5)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Let us take a look at the molecules generated by our trained N-gram.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 29,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Round 0 ['CC(C)CN1CC(C1)C1=CC=CC=C1', 'C1=CC(=CN=C1)S', 'C1=CC(=CC=C1CC(C(=O)O)N)Cl', 'CCCCCC(=O)OCC1=CC=C(C=C1)O', 'C1=CC(=C(C=C1O)C(=O)O)[N+](=O)[O-]']\\n\",\n      \"Round 1 ['CC(C)CN1CC(C1)C1=CC=CC=C1', 'C1=CC(=CN=C1)Cl', 'C1=CC(=CC=C1CCCC(=O)O)OC', 'CCCCCC(=O)OCC1=CC=C(C=C1)C(C)N(CCCCC)C=C(C(=C)O)C(=O)N(C)S(=O)(=O)O', 'C1=CC(=C(C=C1O)C(=O)O)CCO']\\n\",\n      \"Round 2 ['CC(C)CN1CC(C1)C1=CC=CC=C1', 'C1=CC(=CN=C1)C1=CC(=CC(=C1)OC)O', 'C1=CC(=CC=C1CCCC(=O)O)C(=O)C', 'CCCCCC(=O)OCC1=CC=C(C=C1)C(C)N(CCCCC)C=C(C(=C)O)C(=O)N(C)S(=O)C1=CC(=CC=C1NC(=O)C(CCCC1C(C(C1)O)O)N=C(N)N)O', 'C1=CC(=C(C=C1O)C(=O)O)CCN']\\n\",\n      \"Round 3 ['CC(C)CN1CC(C1)C1=CC=CC=C1', 'C1=CC(=CN=C1)C1=CC(=CC=C1)Cl', 'C1=CC(=CC=C1CCCC(=O)O)Cl', 'CCCCCC(=O)OCC1=CC=C(C=C1)C(C)N(CCCCC)C=C(C(=C)O)C(=O)N(C)S(=O)C1=CC(=CC=C1NC(=O)C(CCCC1C(C(C1)O)O)N)OCC(CO)N', 'C1=CC(=C(C=C1O)O)N']\\n\",\n      \"Round 4 ['CC(C)CN1CC(C1)C1=CC=CC=C1', 'C1=CC(=CN=C1)C#N', 'C1=CC(=CC=C1CCCCCC(=O)C(C1=CC=CC2=CC=CC=C2CCC2=CC=C(C=C2)Cl)NC(=N1)NCCCOC)C', 'CCCCCC(=O)OCC1=CC=C(C=C1)C(C)N(CCCCC)C=C(C(=C)O)C(=O)N(C)S(=O)C1=CC(=CC=C1NC(=O)C(CCCC1C(C(C1)O)O)N)OCC(=O)C1=CC=C(C=C1)CCO', 'C1=CC(=C(C=C1)C(=N)N=[N+]=[N-])Cl']\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"np.random.seed(201903) # fix the random seed\\n\",\n    \"\\n\",\n    \"# perform pure iQSPR molecule generation starting with 5 initial molecules\\n\",\n    \"n_loop = 5\\n\",\n    \"tmp = data_ss['SMILES'][:5]\\n\",\n    \"for i in range(n_loop):\\n\",\n    \"    tmp = n_gram.proposal(tmp)\\n\",\n    \"    print('Round %i' % i,tmp)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Our N-gram-based molecular generator runs as follow:\\n\",\n    \"1. given a tokenized SMILES in the extended SMILES format, randomly delete N tokens from the tail,\\n\",\n    \"2. generate the next token using the N-gram table until we hit a termination token or a pre-set maximum length,\\n\",\n    \"3. if generation ended without a termination token, a simple gramma check will be performed trying to fix any invalid parts, and the generated molecule will be abandoned if this step fails. \\n\",\n    \"\\n\",\n    \"Because we always start the modification from the tail and SMILES is not a 1-to-1 representation of a molecule, we recommend users to use the re-order function to randomly re-order the extended SMILES, so that you will not keep modifying the same part of the molecule. To do so, you can use the \\\"set_params\\\" function or do so when you initialize the N-gram using \\\"NGram(...)\\\". In fact, you can adjust other parameters in our N-gram model this way.\\n\",\n    \"\\n\",\n    \"Note that we did not re-order the SMILES when training our N-gram model, it is highly possible that a re-ordered SMILES during the generation process will lead to substrings that cannot be found in the pre-trained N-gram table, causing a warning message and the molecule will be kept the same.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 32,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Round 0 ['CC(C)CN1CC(C1)C1(CCN(CC1)C)C1=CNC2=C1C=C(C=C2)Br', 'C1=CC(=CN=C1)C(=O)OCCO', 'C1=CC(=CC=C1CC(C(=O)O)N)N(CCCl)C(=O)CN1CCN(C1)C1=CC(=C(C(=C1)Cl)N=NC1=C(C=CC(=C1Cl)C)OC)N', 'O=C(CCCCC)Cl', 'C1=CC(=C(C=C1O)C(=O)O)O']\\n\",\n      \"Round 1 ['C1C(C2(c3c[nH]c4ccc(Br)cc34)CCN(C)CC2)CCC2=CC(=O)N2C1', 'C1=CC(=CN=C1)C(=O)OCCO', 'C1=CC(=CC=C1CC(C(=O)O)N)N(CCCl)C(=O)CN1CCN(C1)C1=CC(=C(C(=C1)Cl)N=NC1=C(C=CC(=C1Cl)C)OCC1=CC=CS1)O', 'O=C(C(=O)O)S', 'C1=CC(=C(C=C1O)C(C(=O)O)O)Cl']\\n\",\n      \"Round 2 ['C1C(C2(c3c[nH]c4ccc(Br)cc34)CCN(C)CC2)CCC2=CC(=O)N2C1', 'C1=CC(=CN=C1)C(=O)OC1=CC(=CC(=C1C)C(=O)O)C(=O)OCCCCCCCBr', 'C1=CC(=CC=C1CC(C(=O)O)N)N(CCCl)C(=O)CN1CCN(C1)C1=CC(=C(C(=C1)Cl)N=NC1=C(C=CC(=C1Cl)C)OCC1=CC=CC=C1)N', 'O=C(CCl)N1CCCCCOCCCCOCCCCOC(C(O1)OCC1=CC=CC=C1)COC(=O)C(=C)C(=O)OCCN(C)CC1=CNC2=CC=CC=C12', 'C1=CC(=C(C=C1O)C(C(=O)O)NC(C)C)C(=O)OC1=CC(=C(C=C1)Cl)O']\\n\",\n      \"Round 3 ['C1C(C2(c3c[nH]c4ccc(Br)cc34)CCN(C)CC2)CCC2=CC(=O)N2C1', 'C1=CC(=CN=C1)C(=O)OC1=CC(=CC(=C1C)C(=O)O)C(=O)OCCCCF', 'C1=CC(=CC=C1CC(C(=O)O)N)N(CCCl)C(=O)CN1CCN(C1)C1=CC(=C(C(=C1)Cl)N=NC1=C(C=CC(=C1Cl)C)OCCN(CC)C)Cl', 'O=C(CCl)N1CCCCCOCCCCOCCCCOC(C(O1)OCC1=CC=CC=C1)COC(=O)C(=C)C(=O)OCCN(C)CC1=CNC2=C1C(=O)N2', 'C1=CC(=C(C=C1O)C(C(=O)O)NC(C)C)C(=O)OC1=CC(=C(C=C1)Cl)O']\\n\",\n      \"Round 4 ['C1C(C2(c3c[nH]c4ccc(Br)cc34)CCN(C)CC2)CCC2=CC(=O)N2C1', 'C1=CC(=CN=C1)C(=O)OC1=CC(=CC(=C1C)C(=O)O)C(=O)OCCCC', 'c1(Cl)c(C)ccc(OCCN(C)CC)c1N=Nc1c(Cl)cc(N2CCN(CC(=O)N(CCCl)c3ccc(CC(N)C(=O)O)cc3)C)OC1C(C=C2)CCCCCC', 'O=C(CCl)N1CCCCCOCCCCOCCCCOC(C(O1)OCC1=CC=CC=C1)COC(=O)C(=C)C(=O)OCCN(C)CC1=CNC2=C1C=C(C=C2)COC(=O)C=C(C#N)C', 'C1=CC(=C(C=C1O)C(C(=O)O)NC(C)C)C(=O)OC1=CC(=C(C=C1)Cl)F']\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit ERROR: [10:15:49] Can't kekulize mol.  Unkekulized atoms: 18 19 20\\n\",\n      \"RDKit ERROR: \\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# change internal parameters of n_gram generator\\n\",\n    \"_ = n_gram.set_params(del_range=[1,10], max_len=500, reorder_prob=0.5)\\n\",\n    \"\\n\",\n    \"np.random.seed(201906) # fix the random seed\\n\",\n    \"\\n\",\n    \"# perform pure iQSPR molecule generation starting with 10 PG molecules\\n\",\n    \"n_loop = 5\\n\",\n    \"tmp = data_ss['SMILES'][:5]\\n\",\n    \"for i in range(n_loop):\\n\",\n    \"    tmp = n_gram.proposal(tmp)\\n\",\n    \"    print('Round %i' % i,tmp)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"To avoid getting stuck at certain molecule structures due to the re-ordering issue, we recommend two solutions: \\n\",\n    \"\\n\",\n    \"1. Avoid re-ordering: standardize the SMILES to a single format and avoid re-ordering during generation process. To avoid not modifying only certain part of the molecule, pick a larger maximum number for \\\"del_range\\\". This way, you will save time on training the N-gram model, but probably need more iteration steps during the actual iQSPR run for convergence to your target property region. This is recommend only if you are really out of computing power for training a big N-gram table.\\n\",\n    \"\\n\",\n    \"2. Data augmentation: expand your training set of SMILES by adding re-ordered SMILES of each originally available SMILES. Be careful of the bias to larger molecules due to more re-order patterns for longer SMILES. This way, you will need longer time to train the N-gram model, but probably converge faster in the actual iQSPR run.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 5-10min to complete!</span>**\\n\",\n    \"\\n\",\n    \"You can skip this part and proceed forward\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 33,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit WARNING: [10:17:27] WARNING: not removing hydrogen atom without neighbors\\n\",\n      \"100%|██████████| 3000/3000 [04:09<00:00, 12.02it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 4min 9s, sys: 2.07 s, total: 4min 11s\\n\",\n      \"Wall time: 4min 10s\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# Method 1: use canonical SMILES in RDKit with no reordering\\n\",\n    \"cans = [Chem.MolToSmiles(Chem.MolFromSmiles(smi)) for smi in data_ss['SMILES']]\\n\",\n    \"n_gram_cans = NGram(reorder_prob=0)\\n\",\n    \"n_gram_cans.fit(cans)\\n\",\n    \"\\n\",\n    \"# save results\\n\",\n    \"with open('ngram_cans.obj', 'wb') as f:\\n\",\n    \"    pk.dump(n_gram_cans, f)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next TWO modules may take 5-10hr to complete!</span>**\\n\",\n    \"\\n\",\n    \"You can skip the next TWO cells for time-saving and use our pre-trained `NGram` to proceed forward. Downloading is available at:\\n\",\n    \"* https://github.com/yoshida-lab/XenonPy/releases/download/v0.6.2/ngram_pubchem_ikebata_reO15_O10.xz\\n\",\n    \"* https://github.com/yoshida-lab/XenonPy/releases/download/v0.6.2/ngram_pubchem_ikebata_reO15_O11to20.xz\\n\",\n    \"\\n\",\n    \"Using the merge table function in `NGram`, we can train and store the big `NGram` tables separately, and combine them later, as will be demonstrated below. Note that the most efficient way to manually parallelize the training of `NGram` is NOT to split the order, but to split the training set of SMILES strings, which is not what we are doing here.\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 34,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit WARNING: [10:21:49] WARNING: not removing hydrogen atom without neighbors\\n\",\n      \"RDKit ERROR: [10:21:52] Explicit valence for atom # 1 Br, 5, is greater than permitted\\n\",\n      \"RDKit WARNING: [10:21:52] WARNING: not removing hydrogen atom without neighbors\\n\",\n      \"RDKit WARNING: [10:21:52] WARNING: not removing hydrogen atom without neighbors\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"FBr(F)(F)(F)F\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit WARNING: [10:21:53] WARNING: not removing hydrogen atom without neighbors\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 432x288 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 24.5 s, sys: 74.4 ms, total: 24.6 s\\n\",\n      \"Wall time: 24.6 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# N-gram library in XenonPy-iQSPR\\n\",\n    \"from xenonpy.inverse.iqspr import NGram\\n\",\n    \"\\n\",\n    \"np.random.seed(201906) # fix the random seed\\n\",\n    \"\\n\",\n    \"# Method 2: expand n-gram training set with randomly reordered SMILES\\n\",\n    \"# (we show one of the many possible ways of doing it)\\n\",\n    \"n_reorder = 15 # pick a fixed number of re-ordering\\n\",\n    \"\\n\",\n    \"# convert the SMILES to canonical SMILES in RDKit (not necessary in general)\\n\",\n    \"cans = []\\n\",\n    \"for smi in data['SMILES']:\\n\",\n    \"    # remove some molecules in the full SMILES list that may lead to error\\n\",\n    \"    try:\\n\",\n    \"        cans.append(Chem.MolToSmiles(Chem.MolFromSmiles(smi)))\\n\",\n    \"    except:\\n\",\n    \"        print(smi)\\n\",\n    \"        pass\\n\",\n    \"\\n\",\n    \"mols = [Chem.MolFromSmiles(smi) for smi in cans]\\n\",\n    \"smi_reorder_all = []\\n\",\n    \"smi_reorder = []\\n\",\n    \"for mol in mols:\\n\",\n    \"    idx = list(range(mol.GetNumAtoms()))\\n\",\n    \"    tmp = [Chem.MolToSmiles(mol,rootedAtAtom=x) for x in range(len(idx))]\\n\",\n    \"    smi_reorder_all.append(np.array(list(set(tmp))))\\n\",\n    \"    smi_reorder.append(np.random.choice(smi_reorder_all[-1], n_reorder,\\n\",\n    \"                                        replace=(len(smi_reorder_all[-1]) < n_reorder)))\\n\",\n    \"\\n\",\n    \"n_uni = [len(x) for x in smi_reorder_all]\\n\",\n    \"_ = plt.hist(n_uni, bins='auto')  # arguments are passed to np.histogram\\n\",\n    \"_ = plt.title(\\\"Histogram for number of SMILES variants\\\")\\n\",\n    \"_ = plt.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 39,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# flatten out the list and train the N-gram\\n\",\n    \"flat_list = [item for sublist in smi_reorder for item in sublist]\\n\",\n    \"\\n\",\n    \"# first train up to order 10\\n\",\n    \"n_gram_reorder1 = NGram(reorder_prob=0.5)\\n\",\n    \"_ = n_gram_reorder1.fit(flat_list, train_order=10)\\n\",\n    \"# save results\\n\",\n    \"_ = joblib.dump(n_gram_reorder1, 'ngram_pubchem_ikebata_reO15_O10.xz')\\n\",\n    \"# with open('ngram_pubchem_ikebata_reO15_O10.obj', 'wb') as f:\\n\",\n    \"#     pk.dump(n_gram_reorder1, f)\\n\",\n    \"    \\n\",\n    \"# Then, train up from order 11 to 20\\n\",\n    \"n_gram_reorder2 = NGram(reorder_prob=0.5, sample_order=(11, 20))\\n\",\n    \"_ = n_gram_reorder2.fit(flat_list, train_order=(11, 20))\\n\",\n    \"# save results\\n\",\n    \"_ = joblib.dump(n_gram_reorder2, 'ngram_pubchem_ikebata_reO15_O11to20.xz')\\n\",\n    \"# with open('ngram_pubchem_ikebata_reO15_O11to20.obj', 'wb') as f:\\n\",\n    \"#     pk.dump(n_gram_reorder2, f)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Here, we will load the two parts of the pre-trained `NGram` files and combine them for our use in the example. Note that you have the option to overwrite an existing `NGram` while combining or creating a new one. We recommend overwriting the existing one (default setting of merge_table) if the `NGram` table is expected to be very large in order to avoid memory issue.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 75,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 9.79 s, sys: 1 s, total: 10.8 s\\n\",\n      \"Wall time: 10.8 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# load a pre-trained n-gram from the pickle file\\n\",\n    \"n_gram = joblib.load('ngram_pubchem_ikebata_reO15_O10.xz')\\n\",\n    \"# with open('ngram_pubchem_ikebata_reO15_O10.obj', 'rb') as f:\\n\",\n    \"#     n_gram = pk.load(f)\\n\",\n    \"    \\n\",\n    \"# load a pre-trained n-gram from the pickle file\\n\",\n    \"n_gram2 = joblib.load('ngram_pubchem_ikebata_reO15_O11to20.xz')\\n\",\n    \"# with open('ngram_pubchem_ikebata_reO15_O11to20.obj', 'rb') as f:\\n\",\n    \"#     n_gram2 = pk.load(f)\\n\",\n    \"\\n\",\n    \"_ = n_gram.merge_table(n_gram2)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### iQSPR: sequential Monte Carlo\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"After the preparation of forward model (likelihood) and `NGram` model (prior), we are now ready to perform the actual iteration of iQSPR to generate molecules in our target property region.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### run iQSPR\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"We need to first set up some initial molecules as a starting point of our iQSPR iteration. Note that the number of molecules in this initial set governs the number of molecules generated in each iteration step. In practice, you may want at least 100 or even 1000 molecules per step depending your computing resources to avoid getting trapped in a local region when searching the whole molecular space defined by your N-gram model.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 76,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"['CC(Cc1ccccc1)NCCn1cnc2c1c(=O)n(C)c(=O)n2C' 'CN1CCN(C)C1=O' 'N#CO'\\n\",\n      \" 'COC1C(O)C(N)C(OC2OC(C(C)N)CCC2N)C(O)C1N(C)C(=O)CN' 'CCCCOP(N)(=O)OCCCC'\\n\",\n      \" 'NS(=O)(=O)Cl' 'CCSC(=O)N(CC)CC' 'CCCCCC=CCC=CCC=CCCCCC(=O)O'\\n\",\n      \" 'CCCCCC=CCC=CCC=CC=CC(O)CCCC(=O)O'\\n\",\n      \" 'CC1NCCc2c(C(=O)N3CCCCC3)[nH]c3cccc1c23' 'ClC1C=CC(Cl)C(Cl)C1Cl'\\n\",\n      \" 'CC1=CC(=O)CC1' 'CC1C(=O)NC(=O)N(C2CCCCC2)C1=O'\\n\",\n      \" 'O=[N+]([O-])c1cc2nc(C(F)(F)F)[nH]c2cc1Cl' 'O=C1C=C2NC(C(=O)O)C=C2CC1=O'\\n\",\n      \" 'CCSC(=O)N(CC)CC' 'CCCCCCCCOc1ccc(C(=O)c2ccccc2O)c(O)c1'\\n\",\n      \" 'COc1ccc2c(c1)CCC(c1ccccc1)C2(O)c1ccccn1'\\n\",\n      \" 'CCN(CCOC(=O)C(OC)(c1ccccc1)c1ccccc1)CC(C)C' 'COc1ccccc1NC(=O)CC(C)=O'\\n\",\n      \" 'CC1CC2C(=CC1=O)CCC1C2CCC2(C)C1CCC2(C)O' 'C1COCCN1' 'NCCNCCO'\\n\",\n      \" 'CCC(C)Cc1cccc(O)c1C' 'COC(F)(F)CCl']\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit WARNING: [23:16:50] WARNING: not removing hydrogen atom without neighbors\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# set up initial molecules for iQSPR\\n\",\n    \"np.random.seed(201906) # fix the random seed\\n\",\n    \"cans = [Chem.MolToSmiles(Chem.MolFromSmiles(smi)) for i, smi in enumerate(data_ss['SMILES'])\\n\",\n    \"       if (data_ss['HOMO-LUMO gap'].iloc[i] > 4)]\\n\",\n    \"init_samples = np.random.choice(cans, 25)\\n\",\n    \"print(init_samples)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"For any sequential Monte Carlo algorithm, annealing is usually recommended to avoid getting trapped in a local mode. In iQSPR, we use the beta vector to control our annealing schedule. We recommend starting with a small number close to 0 to minimize the influence from the likelihood at the beginning steps and using some kind of exponential-like schedule to increase the beta value to 1, which represents the state of the original likelihood. The length of the beta vector directly controls the number of iteration in iQSPR. We recommend adding more steps with beta=1 at the end to allow exploration of the posterior distribution (your target property region). In practice, iteration of the order of 100 or 1000 steps is recommended depending your computing resources.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 77,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Number of steps: 50\\n\",\n      \"[0.01       0.02       0.03       0.04       0.05       0.06\\n\",\n      \" 0.07       0.08       0.09       0.1        0.11       0.12\\n\",\n      \" 0.13       0.14       0.15       0.16       0.17       0.18\\n\",\n      \" 0.19       0.2        0.21       0.23111111 0.25222222 0.27333333\\n\",\n      \" 0.29444444 0.31555556 0.33666667 0.35777778 0.37888889 0.4\\n\",\n      \" 0.4        0.46666667 0.53333333 0.6        0.66666667 0.73333333\\n\",\n      \" 0.8        0.86666667 0.93333333 1.         1.         1.\\n\",\n      \" 1.         1.         1.         1.         1.         1.\\n\",\n      \" 1.         1.        ]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# set up annealing schedule in iQSPR\\n\",\n    \"beta = np.hstack([np.linspace(0.01,0.2,20),np.linspace(0.21,0.4,10),np.linspace(0.4,1,10),np.linspace(1,1,10)])\\n\",\n    \"print('Number of steps: %i' % len(beta))\\n\",\n    \"print(beta)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 2-3min to complete!</span>**\\n\",\n    \"\\n\",\n    \"Putting together the initial molecules, beta vector, forward model (likelihood), N-gram model (prior), you can now use a for-loop over the IQSPR class to get the generated molecules at each iteration step. More information can be extracted from the loop by setting \\\"yield_lpf\\\" to True (l: log-likelihood, p: probability of resampling, f: frequency of appearence). Note that the length of generated molecules in each step may not equal to the length of initial molecules because we only track the unique molecules and record their appearance frequency separately.\\n\",\n    \"\\n\",\n    \"We will use the previously trained `NGram` here. Please make sure you have loaded the `NGram` models and merged them property in the previous section. We will reset the parameters again to make sure the values are what we expected them to be. \\n\",\n    \"\\n\",\n    \"Note that warnings will be thrown out if there are molecules generated from the `NGram` that cannot be converted to RDKit's MOL format. \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 79,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# library for running iQSPR in XenonPy-iQSPR\\n\",\n    \"from xenonpy.inverse.iqspr import IQSPR\\n\",\n    \"\\n\",\n    \"# update NGram parameters for this exampleHOMO-LUMO gap\\n\",\n    \"n_gram.set_params(del_range=[1,20],max_len=500, reorder_prob=0.5, sample_order=(1,20))\\n\",\n    \"\\n\",\n    \"# set up likelihood and n-gram models in iQSPR\\n\",\n    \"iqspr_reorder = IQSPR(estimator=prd_mdls, modifier=n_gram)\\n\",\n    \"    \\n\",\n    \"np.random.seed(201906) # fix the random seed\\n\",\n    \"# main loop of iQSPR\\n\",\n    \"iqspr_samples1, iqspr_loglike1, iqspr_prob1, iqspr_freq1 = [], [], [], []\\n\",\n    \"for s, ll, p, freq in iqspr_reorder(init_samples, beta, yield_lpf=True):\\n\",\n    \"    iqspr_samples1.append(s)\\n\",\n    \"    iqspr_loglike1.append(ll)\\n\",\n    \"    iqspr_prob1.append(p)\\n\",\n    \"    iqspr_freq1.append(freq)\\n\",\n    \"# record all outputs\\n\",\n    \"iqspr_results_reorder = {\\n\",\n    \"    \\\"samples\\\": iqspr_samples1,\\n\",\n    \"    \\\"loglike\\\": iqspr_loglike1,\\n\",\n    \"    \\\"prob\\\": iqspr_prob1,\\n\",\n    \"    \\\"freq\\\": iqspr_freq1,\\n\",\n    \"    \\\"beta\\\": beta\\n\",\n    \"}\\n\",\n    \"# save results\\n\",\n    \"with open('iQSPR_results_reorder.obj', 'wb') as f:\\n\",\n    \"    pk.dump(iqspr_results_reorder, f)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### plot results\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Let us take a look at the results.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 46,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"with open('iQSPR_results_reorder.obj', 'rb') as f:\\n\",\n    \"    iqspr_results_reorder = pk.load(f)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"First, we look at how the likelihood values of the generated molecules converged to a distribution peaked around 1 (hitting the target property region). The gradient correlates well to the annealing schedule.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 48,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# plot the likelihood evolution\\n\",\n    \"\\n\",\n    \"# set up the min and max boundary for the plots\\n\",\n    \"tmp_list = [x.sum(axis = 1, skipna = True).values for x in iqspr_results_reorder[\\\"loglike\\\"]]\\n\",\n    \"flat_list = np.asarray([item for sublist in tmp_list for item in sublist])\\n\",\n    \"y_max, y_min = max(flat_list), min(flat_list)\\n\",\n    \"\\n\",\n    \"_ = plt.figure(figsize=(10,5))\\n\",\n    \"_ = plt.xlim(0,len(iqspr_results_reorder[\\\"loglike\\\"]))\\n\",\n    \"_ = plt.ylim(y_min,y_max)\\n\",\n    \"_ = plt.xlabel('Step')\\n\",\n    \"_ = plt.ylabel('Log-likelihood')\\n\",\n    \"for i, ll in enumerate(tmp_list):\\n\",\n    \"    _ = plt.scatter([i]*len(ll), ll ,s=10, c='b', alpha=0.2)\\n\",\n    \"_ = plt.show()\\n\",\n    \"#plt.savefig('iqspr_loglike_reorder.png',dpi = 500)\\n\",\n    \"#plt.close()\\n\",\n    \"\\n\",\n    \"y_max, y_min = np.exp(y_max), np.exp(y_min)\\n\",\n    \"_ = plt.figure(figsize=(10,5))\\n\",\n    \"_ = plt.xlim(0,len(iqspr_results_reorder[\\\"loglike\\\"]))\\n\",\n    \"_ = plt.ylim(y_min,y_max)\\n\",\n    \"_ = plt.xlabel('Step')\\n\",\n    \"_ = plt.ylabel('Likelihood')\\n\",\n    \"for i, ll in enumerate(tmp_list):\\n\",\n    \"    _ = plt.scatter([i]*len(ll), np.exp(ll) ,s=10, c='b', alpha=0.2)\\n\",\n    \"_ = plt.show()\\n\",\n    \"#plt.savefig('iqspr_like_reorder.png',dpi = 500)\\n\",\n    \"#plt.close()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 1-2min to complete!</span>**\\n\",\n    \"\\n\",\n    \"Next, we plot the evolution of the generated molecules in the target property space. Note that if your forward models are BayesRidge, you need to add return_std=True to the predict function.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 49,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Range of std. dev.: (25.5192,33.1820)\\n\",\n      \"CPU times: user 18.7 s, sys: 182 ms, total: 18.8 s\\n\",\n      \"Wall time: 19.9 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# re-calculate the property values for the proposed molecules\\n\",\n    \"x_mean, x_std, y_mean, y_std = [], [], [], []\\n\",\n    \"r_std = []\\n\",\n    \"FPs_samples = []\\n\",\n    \"for i, smis in enumerate(iqspr_results_reorder[\\\"samples\\\"]):\\n\",\n    \"    tmp_fps = RDKit_FPs.transform(smis)\\n\",\n    \"    FPs_samples.append(tmp_fps)\\n\",\n    \"    \\n\",\n    \"    tmp1, tmp2 = prd_mdls[\\\"E\\\"].predict(tmp_fps)\\n\",\n    \"    x_mean.append(tmp1)\\n\",\n    \"    x_std.append(tmp2)\\n\",\n    \"    \\n\",\n    \"    tmp1, tmp2 = prd_mdls[\\\"HOMO-LUMO gap\\\"].predict(tmp_fps)\\n\",\n    \"    y_mean.append(tmp1)\\n\",\n    \"    y_std.append(tmp2)\\n\",\n    \"    \\n\",\n    \"    r_std.append([np.sqrt(x_std[-1][i]**2 + y_std[-1][i]**2) for i in range(len(x_std[-1]))])\\n\",\n    \"\\n\",\n    \"# flatten the list for max/min calculation\\n\",\n    \"flat_list = [item for sublist in r_std for item in sublist]\\n\",\n    \"print('Range of std. dev.: (%.4f,%.4f)' % (min(flat_list),max(flat_list)))\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 1-2min to complete!</span>**\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 50,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 19.3 s, sys: 395 ms, total: 19.7 s\\n\",\n      \"Wall time: 19.7 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"import os\\n\",\n    \"\\n\",\n    \"# prepare a folder to save all the figures\\n\",\n    \"ini_dir = './iQSPR_tutorial_prd/'\\n\",\n    \"if not os.path.exists(ini_dir):\\n\",\n    \"    os.makedirs(ini_dir)\\n\",\n    \"\\n\",\n    \"flat_list = np.asarray([item for sublist in r_std for item in sublist])\\n\",\n    \"s_max, s_min = max(flat_list), min(flat_list)\\n\",\n    \"flat_list = np.concatenate((data_ss[\\\"E\\\"],\\n\",\n    \"    np.asarray([item for sublist in x_mean for item in sublist])))\\n\",\n    \"x_max, x_min = max(flat_list), min(flat_list)\\n\",\n    \"flat_list = np.concatenate((data_ss[\\\"HOMO-LUMO gap\\\"],\\n\",\n    \"    np.asarray([item for sublist in y_mean for item in sublist])))\\n\",\n    \"y_max, y_min = max(flat_list), min(flat_list)\\n\",\n    \"tmp_beta = iqspr_results_reorder[\\\"beta\\\"]\\n\",\n    \"\\n\",\n    \"for i in range(len(r_std)):\\n\",\n    \"    dot_size = 45*((np.asarray(r_std[i])-s_min)/(s_max-s_min)) + 5\\n\",\n    \"    \\n\",\n    \"    _ = plt.figure(figsize=(5,5))\\n\",\n    \"    rectangle = plt.Rectangle((0,0),200,3,fc='y',alpha=0.1)\\n\",\n    \"    _ = plt.gca().add_patch(rectangle)\\n\",\n    \"    _ = plt.scatter(data_ss[\\\"E\\\"], data_ss[\\\"HOMO-LUMO gap\\\"],s=3, c='b', alpha=0.2)\\n\",\n    \"    _ = plt.scatter(x_mean[i], y_mean[i],s=dot_size, c='r', alpha=0.5)\\n\",\n    \"    _ = plt.title('Step: %i (beta = %.3f)' % (i,tmp_beta[i]))\\n\",\n    \"    _ = plt.xlim(x_min,x_max)\\n\",\n    \"    _ = plt.ylim(y_min,y_max)\\n\",\n    \"    _ = plt.xlabel('Internal energy')\\n\",\n    \"    _ = plt.ylabel('HOMO-LUMO gap')\\n\",\n    \"    #plt.show()\\n\",\n    \"    _ = plt.savefig(ini_dir+'Step_%02i.png' % i,dpi = 500)\\n\",\n    \"    _ = plt.close()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 10-15min to complete!</span>**\\n\",\n    \"\\n\",\n    \"Finally, let us take a look at the generated molecular structures.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 51,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 4min 16s, sys: 7.13 s, total: 4min 23s\\n\",\n      \"Wall time: 4min 25s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"import os\\n\",\n    \"\\n\",\n    \"# prepare a folder to save all the figures\\n\",\n    \"ini_dir = './iQSPR_tutorial_smiles/'\\n\",\n    \"if not os.path.exists(ini_dir):\\n\",\n    \"    os.makedirs(ini_dir)\\n\",\n    \"\\n\",\n    \"tmp_list = [x.sum(axis = 1, skipna = True).values for x in iqspr_results_reorder[\\\"loglike\\\"]]    \\n\",\n    \"\\n\",\n    \"n_S = 25\\n\",\n    \"for i, smis in enumerate(iqspr_results_reorder['samples']):\\n\",\n    \"    tmp_smis = iqspr_results_reorder['samples'][i][\\n\",\n    \"        np.argsort(tmp_list[i])[::-1]]\\n\",\n    \"    fig, ax = plt.subplots(5, 5)\\n\",\n    \"    _ = fig.set_size_inches(20, 20)\\n\",\n    \"    _ = fig.set_tight_layout(True)\\n\",\n    \"    for j in range(n_S):\\n\",\n    \"        xaxis = j // 5\\n\",\n    \"        yaxis = j % 5\\n\",\n    \"        try:\\n\",\n    \"            img = Draw.MolToImage(Chem.MolFromSmiles(tmp_smis[j]))\\n\",\n    \"            _ = ax[xaxis, yaxis].clear()\\n\",\n    \"            _ = ax[xaxis, yaxis].set_frame_on(False)\\n\",\n    \"            _ = ax[xaxis, yaxis].imshow(img)\\n\",\n    \"        except:\\n\",\n    \"            pass\\n\",\n    \"        _ = ax[xaxis, yaxis].set_axis_off()\\n\",\n    \"    _ = fig.savefig(ini_dir+'Step_%02i.png' % i,dpi = 500)\\n\",\n    \"    _ = plt.close()\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"We can now compare our generated molecules with the 16 existing molecules in our data set that are in the target region. You can see that our generated molecules contain substructures that are similar to a few of the existing molecules.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 52,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"target_smis = [Chem.MolToSmiles(Chem.MolFromSmiles(smi)) for i, smi in enumerate(data_ss['SMILES'])\\n\",\n    \"       if ((data_ss['HOMO-LUMO gap'].iloc[i] <= 3) and (data_ss['E'].iloc[i] <= 200))]\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 53,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"['O=C1N=c2cc([N+](=O)[O-])c([N+](=O)[O-])cc2=NC1=O', 'O=C1C(O)=C(c2ccccc2)C(=O)C(O)=C1c1ccccc1', 'O=c1ccc2[n+]([O-])c3ccc(O)cc3oc-2c1', 'Nc1ccc2nc3ccccc3nc2c1N', 'Cc1cc(Cl)cc2c1C(=O)C(=C1Sc3cc(Cl)cc(C)c3C1=O)S2', 'Nc1ccc(N)c2c1C(=O)c1c(N)ccc(N)c1C2=O', 'COc1cc(N)c2c(c1N)C(=O)c1ccccc1C2=O', 'Nc1ccc(O)c2c1C(=O)c1ccccc1C2=O', 'CNc1ccc(N(CCO)CCO)cc1[N+](=O)[O-]', 'C1=Cc2c3ccccc3cc3c4c(cc1c23)=CCCC=4', 'O=C(CN1CCOCC1)NN=Cc1ccc([N+](=O)[O-])o1', 'CNc1ccc(O)c2c1C(=O)c1c(O)ccc(NC)c1C2=O', 'O=C1c2c(O)ccc(O)c2C(=O)c2c(O)ccc(O)c21', 'O=C1C=CC(=C2C=CC(=O)C=C2)C=C1', 'c1ccc2c(c1)ccc1c2ccc2ccc3ccccc3c21', 'NC1=NC(=O)C2=C(CNC3C=CC(O)C3O)C=NC2=N1']\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"print(target_smis)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 54,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 6.38 s, sys: 1.38 s, total: 7.75 s\\n\",\n      \"Wall time: 7.75 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"import os\\n\",\n    \"\\n\",\n    \"# prepare a folder to save all the figures\\n\",\n    \"ini_dir = './iQSPR_tutorial_target_smiles/'\\n\",\n    \"if not os.path.exists(ini_dir):\\n\",\n    \"    os.makedirs(ini_dir)\\n\",\n    \"\\n\",\n    \"n_S = 25\\n\",\n    \"\\n\",\n    \"fig, ax = plt.subplots(5, 5)\\n\",\n    \"_ = fig.set_size_inches(20, 20)\\n\",\n    \"_ = fig.set_tight_layout(True)\\n\",\n    \"for j in range(n_S):\\n\",\n    \"    xaxis = j // 5\\n\",\n    \"    yaxis = j % 5\\n\",\n    \"    try:\\n\",\n    \"        img = Draw.MolToImage(Chem.MolFromSmiles(target_smis[j]))\\n\",\n    \"        _ = ax[xaxis, yaxis].clear()\\n\",\n    \"        _ = ax[xaxis, yaxis].set_frame_on(False)\\n\",\n    \"        _ = ax[xaxis, yaxis].imshow(img)\\n\",\n    \"    except:\\n\",\n    \"        pass\\n\",\n    \"    _ = ax[xaxis, yaxis].set_axis_off()\\n\",\n    \"_ = fig.savefig(ini_dir+'target_region.png',dpi = 500)\\n\",\n    \"_ = plt.close()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### run iQSPR with different annealing schedules\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"In some cases, you may want to give priority to certain property reaching the target region. This can be done by adjusting the annealing schedule for each property. To do so, you can input a dictionary for beta, instead. Here, we try to reach a low value for internal energy first. Hence, the annealing schedule for HOMO-LUMO gap has a longer flat region.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 55,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"           E  HOMO-LUMO gap\\n\",\n      \"0   0.010000       0.005714\\n\",\n      \"1   0.020000       0.011429\\n\",\n      \"2   0.030000       0.017143\\n\",\n      \"3   0.040000       0.022857\\n\",\n      \"4   0.050000       0.028571\\n\",\n      \"5   0.060000       0.034286\\n\",\n      \"6   0.070000       0.040000\\n\",\n      \"7   0.080000       0.045714\\n\",\n      \"8   0.090000       0.051429\\n\",\n      \"9   0.100000       0.057143\\n\",\n      \"10  0.110000       0.062857\\n\",\n      \"11  0.120000       0.068571\\n\",\n      \"12  0.130000       0.074286\\n\",\n      \"13  0.140000       0.080000\\n\",\n      \"14  0.150000       0.085714\\n\",\n      \"15  0.160000       0.091429\\n\",\n      \"16  0.170000       0.097143\\n\",\n      \"17  0.180000       0.102857\\n\",\n      \"18  0.190000       0.108571\\n\",\n      \"19  0.200000       0.114286\\n\",\n      \"20  0.210000       0.120000\\n\",\n      \"21  0.231111       0.125714\\n\",\n      \"22  0.252222       0.131429\\n\",\n      \"23  0.273333       0.137143\\n\",\n      \"24  0.294444       0.142857\\n\",\n      \"25  0.315556       0.148571\\n\",\n      \"26  0.336667       0.154286\\n\",\n      \"27  0.357778       0.160000\\n\",\n      \"28  0.378889       0.165714\\n\",\n      \"29  0.400000       0.171429\\n\",\n      \"30  0.400000       0.177143\\n\",\n      \"31  0.466667       0.182857\\n\",\n      \"32  0.533333       0.188571\\n\",\n      \"33  0.600000       0.194286\\n\",\n      \"34  0.666667       0.200000\\n\",\n      \"35  0.733333       0.210000\\n\",\n      \"36  0.800000       0.257500\\n\",\n      \"37  0.866667       0.305000\\n\",\n      \"38  0.933333       0.352500\\n\",\n      \"39  1.000000       0.400000\\n\",\n      \"40  1.000000       0.400000\\n\",\n      \"41  1.000000       0.550000\\n\",\n      \"42  1.000000       0.700000\\n\",\n      \"43  1.000000       0.850000\\n\",\n      \"44  1.000000       1.000000\\n\",\n      \"45  1.000000       1.000000\\n\",\n      \"46  1.000000       1.000000\\n\",\n      \"47  1.000000       1.000000\\n\",\n      \"48  1.000000       1.000000\\n\",\n      \"49  1.000000       1.000000\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# set up annealing schedule in iQSPR\\n\",\n    \"beta1 = np.hstack([np.linspace(0.01,0.2,20),np.linspace(0.21,0.4,10),np.linspace(0.4,1,10),np.linspace(1,1,10)])\\n\",\n    \"beta2 = np.hstack([np.linspace(0.2/35,0.2,35),np.linspace(0.21,0.4,5),np.linspace(0.4,1,5),np.linspace(1,1,5)])\\n\",\n    \"beta = pd.DataFrame({'E': beta1, 'HOMO-LUMO gap': beta2})\\n\",\n    \"print(beta)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Let us try to re-run the IQSPR to see how the results may differ\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 80,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# library for running iQSPR in XenonPy-iQSPR\\n\",\n    \"from xenonpy.inverse.iqspr import IQSPR\\n\",\n    \"\\n\",\n    \"# update NGram parameters for this exampleHOMO-LUMO gap\\n\",\n    \"n_gram.set_params(del_range=[1,20],max_len=500, reorder_prob=0.5)\\n\",\n    \"\\n\",\n    \"# set up likelihood and n-gram models in iQSPR\\n\",\n    \"iqspr_reorder = IQSPR(estimator=prd_mdls, modifier=n_gram)\\n\",\n    \"    \\n\",\n    \"np.random.seed(201909) # fix the random seed\\n\",\n    \"# main loop of iQSPR\\n\",\n    \"iqspr_samples1, iqspr_loglike1, iqspr_prob1, iqspr_freq1 = [], [], [], []\\n\",\n    \"for s, ll, p, freq in iqspr_reorder(init_samples, beta, yield_lpf=True):\\n\",\n    \"    iqspr_samples1.append(s)\\n\",\n    \"    iqspr_loglike1.append(ll)\\n\",\n    \"    iqspr_prob1.append(p)\\n\",\n    \"    iqspr_freq1.append(freq)\\n\",\n    \"# record all outputs\\n\",\n    \"iqspr_results_reorder = {\\n\",\n    \"    \\\"samples\\\": iqspr_samples1,\\n\",\n    \"    \\\"loglike\\\": iqspr_loglike1,\\n\",\n    \"    \\\"prob\\\": iqspr_prob1,\\n\",\n    \"    \\\"freq\\\": iqspr_freq1,\\n\",\n    \"    \\\"beta\\\": beta\\n\",\n    \"}\\n\",\n    \"# save results\\n\",\n    \"with open('iQSPR_results_reorder2.obj', 'wb') as f:\\n\",\n    \"    pk.dump(iqspr_results_reorder, f)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### plot results\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Let us take a look at the results.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 57,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"with open('iQSPR_results_reorder2.obj', 'rb') as f:\\n\",\n    \"    iqspr_results_reorder = pk.load(f)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"First, we look at how the likelihood values of the generated molecules converged to a distribution peaked around 1 (hitting the target property region). The gradient correlates well to the annealing schedule.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 58,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"iVBORw0KGgoAAAANSUhEUgAAAmwAAAE/CAYAAAD7Z5/hAAAAOXRFWHRTb2Z0d2FyZQBNYXRwbG90bGliIHZlcnNpb24zLjMuMiwgaHR0cHM6Ly9tYXRwbG90bGliLm9yZy8vihELAAAACXBIWXMAAAsTAAALEwEAmpwYAABnLUlEQVR4nO3de5gkdX0v/nfduquv09MzPTO7s3eW5SrXVYJiFoxglmVFEi9wEjRyvKB5kIOJJxwT9WhUZA8eiUrUc2LkSYyi5vzEqKwKREQFRe4gyHLb2+zsTE9P37uqu26/P3qmYWWrumronumeeb+eh2fp2e/Ufru+3VWf+l4+X8FxHAdERERE1LPEpa4AEREREXljwEZERETU4xiwEREREfU4BmxEREREPY4BGxEREVGPY8BGRERE1OPkpa5Ap+TzVdg2M5T0o6GhOHK5ylJXgxaI7de/2HaAVjexb6oMEQJsOFg/mkAk7H5r1Oom9IYJNSR7lgtadiH8tF+Q9xek7GSuioefzkKWRJiWjdOOzWDVUMz1uI8/n4OuG1BVBSdvHPI8H/mSjh/dtw/lmoFEVMEfv2o9BpOq67F/8eghzJY0pJMRnHPKas/394tHDyFXrGFoIOpZNl/ScfsDB1DTDURVBeefuda1DvmSjv/vZ8+iUNWRiqn4k23HuJYFAFEUMDh49HPlZdkEbLbtMGDrY2y7/sb2656abqBWNxENy4iqSseP3+m263Z9O61ca6BUqUOWRZimjXIijLAiHbVsTTfw2+dzaFg2QpKIkzYOub7Hmm7gwT3TqOoGYqqCM7aMtD0fB6bKmCpUMZqKYe1owrNsTTdgCTVotYbnccOKhHQ8jHxFRzquIqxIrm1erjVwcLrcCjLTHueiWKnjoadn0GgYCIUUbFyVxOhg9Khl9x0u4ecPH4JpO5BFAYmIgi1rB13rfO/jh3D3QxNwAAgABqIK/vgPNh617G+ePIz/+MXzsGwbkigirIg455Rxl7JT+P4vnocNByIEhBUJ55yy+qhlH3hqCj9/aAKmY0MWRKTjIbzuzHVHLXvbvc/hl48dhiACjg2oIQGXnX+C6/tbqGUTsBERLTc13cAzE0WIggDbcbB5fGBJgiC/QVhNN/DAniw0rYFIJIQzt2Ta1nfP/jwmcmWMDyWwZZ37TRwAHn0mi33TJawfSeKUzZnOHNcBHnkmh2pNRyyqYsNY0rVorqRjcraGWFhBrq5jbCjm+v4OZit49NkcZFGEadsYGYx6BikHpsrY/et9c209g+1nrXcN2mq6gcefn0UkGoJWa+DkjWnPwPG5yRJM00K+3EBUdW/D2aKOnz8yAcN0oMgC1gzHMTwQca3vgekyBAAOdByYKru+v4PTFRzMVlq9cQenK57nYs+BPDTDOeK1W8D26DNZlDVz7pWNR5/JugZsTzw/g1KrbPO1W8D2zMEiyro198rCMweLeN2ZR6/v/qky7OY/33rdDQzYiIh6VK1uQhQExKMKKrW5oGmRA7YgQePBbAVP7p1FJCRDm6pgdDDifWPen8d3f/4cREHAfU4Wl7x2k2tw9egzWXznrmchCMB9T2QBwDVoC3Lc5yaLeP5QEaIoYLpQx3OTRQynjh6kAEDDsODYgGFZrmUAoFhtYLZchywAptN87WWq0JzWk4wrKFQamCpUXQO2XEnH/qkSUskoCqUaVg1FXdtkvqwiSTAsy7Psc4cKKNdMhBUJ5ZqJ5w4VXM/bZK4K23IQUkQ0DBuTuarre2uYFizLhiA4sCwHDdP73AmC4Pn6yHponq9frFipe75+sdmS7vn6xUzL8XzdKVx0QETUo6JhGbbjoFIzYDsOol2YB9VOrW6iYVgwbRsNw0KtbrqWrRsWtLqJfEWHVjdRN7xvzBO5MhzHwUA8BMdxMJFz75nYN12aOwcKbMfBvulS++PGlLbHzZd0iJKAwaQKURKQ97gxR0IyDNNBoaLDMB1EQh7t4TgoVRrIlXSUKg2gzS6QyUgYE9kKHnxqGhPZCpKRsGtZrW7iyX15/OzB/XhyXx6aR5todRN7DhRw/1OHsedAwbOsIACO48C0HTiOA484CYlo89zqDQuO4yARdX+QiEUU2LYNXTdh2zZiEe+HjtjvBZS///rFJNHxfP1isiR4vn4xNSx6vj7S7/+b3QnY2MNGRNSjoqqCzeMDvueEBZk/dmCqjD2TJUREwXu+lAM8sXe2Nfnaa8jQsR1M5Wqw4ECCAKfN/LihRAT5Uh3ZggZZFDGUcO/ZSsVU5Es6ZgoaJFFAKuY+qXsoEUGlZqCsGRAceB5346oB3PfUNErVOhRFxMZVA65ltYYJQQBCigRBaL52U641YNo2JFGAadso17x72KYLGiqaAQeAoRmYLmiuvVtP7s3hwFQFogjYdvO1W0/mswcL2D9VhSA4cJwGnj1YcC27aigOWZZgWRZkWcKqobhrfVcPxxGPhWCazbKrh93LCgBUVYEkCLAcBx5xYLO8IEAS5wNI7x6207aMYH92/xGv3WwaT+HJ/aW5YzZfuzluXRpP7C3CtgFRbL72Kvv8ZA1z48OeZV8OBmxERMtAkKHL+flSsUgIVa3hOV/qUK6CiZkqJEFAvtLAoVzFdciwrDWgqjJCsoiGaaOseQcpEABREuBYDkRJgNedvGHakAQBjuBAEgQ0TNu17GBSxWg6ikJFQyoe8Vyxt2YkjhPWDmIyV8aqoQTWjLgHHlrdxGypDkUWYJiOZ28VBEANyQjJAhqm4/neAGB6tgJJEpGIKijXDEzPuq/+nJypwHEASRRgWQ4mZ9zLTs1WIMCGIskwTBNTHseNqDI2rx5A3TAQVhREVPcQQQ3LWJWOwXKa7aF69P6GQxIG42GEQxLqDQvh0NEXMswbG4oirIgQBRG2Y2Ns6OiLGQDgnFPGkSvWcXi2jLF0wnX+GgCcsH4Iv35iGnrDgBpScML6IdeyJ28axvOTZZSrDSRiIZy8adi17IVnb0SxauDAdBFrRwZw4dlHn2/3cjFg89Bvq52IyFu/fadruoF7f3sYhUodqXgYZ5805j65vG7i0EwFZa2BRCSE1cPuE+KnClWUawYs20FNNz3nS5VrBgQAUVVGRTNQrhmu9Q3JErSGhXrDhA0BIdn7xrxvsoRStQFBcFA3bOybLOGUY44+L20mX0N9LkizbBsz+ZrrcQ/nqpiarUGUBEzN1nA4V8XakaO/v4PZCrJFDWo4hGxRw8Gs+4R4AUDdMFGrO5BEwTMGWzOcQFiRYJgmwoqMNcPeqz7XjCRhP3YYhVIdgth87SYZV2E5gNZwWq/dDCajaJhA3TQhzL1249jATFGDAwcCTDjuMTHCstSczwcHFgSEPdp649gA1o8VUTcshBUJG8fcezEB4JXHj2H/dAWlUh3JZBivPH7MtWw0LOOVJ4xCFMbaThsQRODUY4ehyBIM04LgMco5lFSx9fjRVg/ikEfQH1UVXPb6LV2/tjBgc9Erq7OIqDOCfqeDBHdBA0G/6RuenSjg7ocPwbQsyJKEkZSKV7gENIeyFdzxwAEYhgVFkbB6KOa6wk/TLTx/qAhHAAQHeNUJ7sNImYEICuU6Ds1UEA0ryLgcE2j2pMhiszcsJEtte1LylTrqDXsuHYKDvMck8Lph4cWdal7z48pac86fhGZblzX3ILNYrSNb0CHMhSnFqnsdtIaJUtWAZVmQJMlzSDSiylg9FEFFMxCPePdWAcCq4Rg2rk6iWNUxEFOxatg9T9fYUAyJiAzTtiCLEsZc8p8BQEgRIUmAbQGi1Hztpm5aEAUBlm1DFEXUPRYHCCIwlo7CdmyIgugZ/AynIjhzy0hr1a7Xoo758n/6h5uRr+gYjKue5YNMGxiMq5BEAYZpQRIFDHoEulFVwckb076/11FV6XqMwIDNRS+sziKizgnynQ4S3AUNBIOkb9hzoICZQg2KIsEw6thzoOAasD3yTBalmgFFFKEZBh55Juu6inI631zRF1YkNBpW6/XRPHuogHy5DhtAvVHHsx4rB5vBjIOQJMKyHJSq7oES0OyRk2VAFABbhGePnCgCiozWPCjRI0CIRxSIggDHRrPNPSa56w0LpUodgiDCcWzoDfcgpVQ1YJjW3JCv5fn+CmUd+UoDYVlCvtJAoay79vI1y9dR0y3EVRU13UKhXHct78wtCggpMizT9pwrOFPQIKAZTJuWhZmC+yrKQqWObEmDIokwrAYKHgG0Yzfn3c1/7r1642YKGp7cn4ckCHiymkc66R2EAc2grV2ZeX6DpagqYzQda6WdibYJohcjCAuCAZuLXlidRdQJ/TYM2C1BvtOBgruAD3dThSpEQcDIYATTec1zOBJwIMkiFFmE7TjwWn1mWg5EB5BEEZZle6YWUGQJkiQiHJJhWQ4Uj0Bp76EiIALxkIJaw2i+diGgmcVdUSQ4htV2cvkx4wN4+OncXN+WgGPG3YfKNowN4MGnZ4947WbVUAzHrBmAVjcRCcuuGfiBZkA3mFQRCTWHc0WPCe5qSEQ8orTmYqkhj6hRAJKRECKqBE232s5hg+AgGQshGpabK3EF9/ZTwxKGB1TEoiFUaw2oYff2G4iHoCgSZFGAIEoYiIdcy4qCgIFYCIoowLAdz3MhiMCGsWQrrYdXD1u+okMSBKQHVMwWdeQruu9gzA/feQLrJgbjYawdifdlRwyjEBdBV2d1S7eGZXgTXxk4tP+CIN/pIMHd/A22VK1DlqW2D3ejqRhsZwbTeQ2242A05R5MvGJTBo8/PwvDdBCPyHjFJvdksWceN4In9xVgmCaSsTDOPM59mPP0Y0fwxL48GoaFgVgUpx/rXnb96gE8+lwedcOECAHrV7sHSpnBCEbT0VaG+syg9035pI1DmCnqmClqGB6I4KSN7pPAzzhuBLlSHdPFKkYGYjjD4/1FQjIS0RBiqgxRFD3Tb6wbSSAaVtAwTETDCtZ59IJtGBvA+rESdMOCqkjeQWM6juFBFbblIBZRsCrtvphhvnwqHkbDMJGKhz3LrxtJYjgVQUiREQlJWOcx3+30Y0fx1P5CK3g9/dhR17KZgQhkUYQNB7Ioeg5/D8ZVqGEJkiA0t1rymkcXV2E5DmaLOizH8SwbVJBrXL93xPRXbRfZUneHdmtYZiXcxLsZvPZTsMuh/SP5HzoJ9sAmwGnOB/ORf2ntaALbz1rvaw7blnWDuOyPjvOVsf+UzRn8OeBrJ4ChgeaE6vkVfkMD7jfQc09bg5m8hoPZEtZkkjj3tDWuZddk4jjt2ExryGlNxjtIiaoKtp027i+IVhWc/8q1/tpEaPb+zK/m9OrdioRlDA2EUdNFRFXFc4/L4VQE529d62tu1XAqgrNOGGu1c7sepagqY+1IrLWVlddw3drRBHa+eiM022mblmXtaAIXn3NM6zPkVTY9oOKsE0dRN5oLJdIen4vhVASvOXmV73Pht2xQQa5xvdIRs1AM2HpYt4Zl5hNhzu+dt9xu4t0MXnsl2PUbNAZ9ouynYLTb/AZ3ze+TA9tx0LCdjn+ftqwbbLtl07zNa1JYnYm3b+e6ibHBKNauTuHAoULbOm8aH8DoUNQzgSnQPGdnbskE+gwFeTD2HXCHZYQUEaIgQFC8P/f5io50QsXmNSlfw3V+51bVdAP5Sh2qoiBfqWNoQG07XJeKq1gzkvD1cLV2NIFMJoFs1nsbpJpuQDcsZAZi0A2rlU/vaKJhGfFoCKop+eotDjLPLEjZIIL2cC91R8zLwYCthwUdlvF9Y3bQyqtkOY5nIsx+1M35R73QYxVoCEBVsHoo1nqy7XQwWtMNTM/WoHncBF5ctp+CQb/11XQTv92ba523daNxwCNrQZBFB0HqEWQfz/nrRanaaHu9yJV0zJbqiKoKZkt15Ep6256wpW7foCsHgwzXBZkvFeRa0a3huqD1CNJb3E1Brhe9UuduY8DWwwLNuQnS1SsA48NxX8MF/ahrge5cea1uoFirIySJS7pVkJ8e0ppu4PnJIhqWjUK57rnxc+DgNeAG1L3QM+nX/Hubz8Hk9d50w8TwgIp4NIRKrQHd8EimimCLDrq1j+d8IO/IzfQfbdtiPqetj2tFrwTmfgPH4VQEZxyb8TV02c35Ut0argu62EYQBMRUZUlHXwKNktRNRMIKMgGuW0F2A/EzdSHocReKAVuP69Zwge04qGqmry7kbgrSQ+P3yxOkV2khF0kHAgSn+Wc7XZlL5wB7D5dg2c3knV49pLmSjgPTZUhSc7uZMY+bc9AbTK6k43CuilFBxFSu6rmp9EKCwaVcbJMr6Xh2ogjMTZ/3em+DcRW200zjIIpi2x6a0VQMDTOLA9NlCILoueggSHBeNyzYtgMHDmzb8cxTVtMNPLk/D1EWYZs2zvQI5IeSKlalo2hYNpIxxTOBaL8F5kCwoctuz5fqRu9koHr0yOhLkM99oIB0AbuB+OkJX6zPPQO2ZaSbXcgzBc33hFG/ZYP00AT98hzKNXsxDuWqnr1KQc2f3/hgZMlyeWkNExCAiCKjYVueyTu1uomZYr3Z69IwPbfSWdATvvB7f7odu0sX1W6VLZSbgW5YllA3LRTKg645saKqjLF0xNdkcaA54X98OIqpfA2jg1HPCf9wgKcPFl+0KtH9BpqKhdGwbFSLza2TUjH3zcMPZit47NkcErEwytV62964kzYOdWUYEFj6HrlAQdgCes2CvKdunQvf9eiV0ZcAgWOQ61aQtg7UE75IU2UYsPW4IPNX/A7hBO32nilo+OXjk60vz2tOXuUaiAUpmyvp2D9VRioZQaGkefZiTBWqaBgWYhEFuua9lU6tbqJcNVoZuNsFVX63/gGaF+zD+RrK+3UkEio2rXa/kNTqJg5lK6joDcRV762CanUTMwWttTrLqywAGAZgwADgkfwIzRVwiagCOEAi6r0CDgh2g5nveVFVGavS0bZbt/ieS1c30TDs1k2j/QIa/2V9n2NBQHhug++wIjV3ivaorxpqTtb28306mK3gUK4GWRJwKFfz3AopX9YxU2huwVSZe+36ECQAmZQKwQYcEZ4321K1jorWQDgko6I1UPLI7g8E770PsshlqXvkAk2h6NKwJdA758LvYo2uChg4duPzGST9zmKlC2HA1sOCfIGbwU+l9QH3Cn6CdnsHSXqYr+iwLAeRqIxKzfAsq9dNZPM11BoWqtU6dI/en5AkYSqvQShocJzmazdBJoE/O1HAA09NIyxLeHai6Ln1DwDkijqe2JuDaTqQc1Uctyblep4PZSv42cOHYDvNBJSrh923Cpot6vj5o5MwTBOKLGNNJu5attnrUkClqiMeU3HOK9z32YuEZGQLNeQKGoZSEc98VECwntSoqmAsHYNmO0hFvAPMmm7guckSTNNCvtzw7vV0gL2Hi7DnNgTfMOYxd8QBntg72+rd8io7W9Tx6yemWklavc5xWJZQ0004jgNB8N4nMej3qVito1RtIBFRUNYMz62QCtU69LqFaERGTTNRaBNYxcLNG1dN995hIBkLQw3JsGwHakhG0qM3DgiwKjlgQNPNnokgdfb7MAE0rwHzUzM6OgcqwIPm/PvzO53Er24GpIHq0aXAMcj7C5J+Z7HOGwO2HhZkHF+vm8iXNaiKDN0wPYOfoE8vQVZRqYqMmaKG2ZIO23GgKu4fsWbedgECBDhtBmcjqoxNqwdg2xZEUfLcl083zGZ277kNfr0mgZdqDQiOgGhERqNko1RreNQC2D9dQl23kUqGUCg1sH+65PpF3ne4CMOyWjfQfYeLrrmxnpssolyrIxySUa7V8dxk0TWVw4N7pnA4V4UoCqjoVTy4Z8q1Do88m8UzEyUIEJCvlvDIs1n80Znrjlp2pqDhrocnYM/tI3juaeOeQdtMQcOvnzyMcFhBvW4gEpY9e1P9zgnTGiY03YJhW1BE7/0aJ3MVTGQrkEQBhXIdk7mKax2yRQ2CACQiYVS0BrJFDVvgssm3CKwdiUMQAMeBZxZ3CEAioqBumIgqStvv00AsDEkSUKw1oMgiBjyCpVQsjHhMgSSIiMe8hzmHkirGhmIwTQvJWMizxzOdUJFJRSDKAhIRGelE5+alBZp326W0M4FGHAJMoTgwVcb379kLx7EhCCJ2vnqD63cv6GrgIA+a820ymDKRL1Q72hvXjXl0C6lDtwKgIO9v7ah33rqFHnehGLAtgSCTy/0+uathGYMJFYosImLKUNusjHQcGxXd9rXSMUjSw4gq46QN6VavkldgFQnLGEmrSCWiiIQFz+E6VZFhzG1MbJiWZyCoKjKKlUbrwudVdt1IEo9Ec83h1qjsmTEcAJLREEzHRr5Uh+U4SEbdt3mJRcKAIzQnfztC87Ubx4EgiJBFEQ1BbEYJLvIlHRAchBUZWsNovnYxOVMBHCAWkVHRjOZrt7KzVUzOVFtbzUzOVj3benK2gmxBx1BKRK6gY3LWPVgKMiesUK7jUK6KsCKhbuieeyqWag0IAhCNKKjUGp4BdyKqoG7a0ApViJLUHCp2oSoySrUGbNuBKAqenyFNN/HAU1OtTPLHrkl5pvXA3AIFvWFBDUleu01hPBPHlrWDKFZ0DMRVjHskoo2qCjatSvrrKRKAdaNxRGMqalXdM8jsZi9YoPlHAUccDueqzYelot6xBTH7p8soVuuIRxRUanXsny673tCDbUEWbLXx/MO8adloGNayy6UJ9Ebg2GsYsC2ymm7gt8/n0LCawdJJG4c85tH47wkbSqpYN5poPVF6PV0DwVY6Av6THs53Zc+/P69gcCipYmwwBkgSxuSYZ50jqox1I/HWfDDPQFCVsW40jrLWQCLiXXbtaAKvP3OtryzgALBqKI7x4Xgr+eSqIfcb6LFrUsgMTjWH6xJK80bu4qSNw3jk2RyqmoHhgTBO2jjsWvaYNYP4zVMz0BpGc//FNe5JVdePDeBXT2RRrDYgCALWe2ylo9dNTM5Um58zB969tADgCMiVdJRrBhpmMyh1NTesKIjN4UavOWEQmp/KWr0BWZQ891TMDERRNyxUc1XIsojMQNS1rKrIME0L9YaJcAieQViz1ywE07bm6uBedM/BAiZnNUiCiELVwJ6DBc/P0XOTBVTrJhRRRLVu4rlJ983UASARDSESaiYy9RJosY0DzBR1JC2gVNFxnEfQ2Cvb+QRO+O0zFUmQ96fIImq6CdO00TBtKLJ712uQOVBAwNXGcw/zZd1CqaIvu1yadHTLJmDT6mZzcrCHoCtwgsznCZIu4Hf7C63Aql2ahYlsGdlCDZlUFCducL+oR1UFq9LRufF2j/lraF748kUdJb2OpBr29XT26DNZX1veAMAzBwuYmCljfDjhuTcgADy1P4/D+RrGBqM4Y4v7cTXdxAN7sqjWGohFQ83jusQemm7iwT1ZVGoG4lEFJ21wL1vTDfzqt4cxMVPC+HAVa0bibW8CFa2OyZkKVg3HvW8GApBOhhGSRcSj3kNlkbCMVFyFCAfJuOrZ27hhVRKb1ySQL9UxmAxjwyr3i/WGVUlsXj2AfEXDYDziWbZuWDAdG7CbdfdKCwGgmT7CcmAIFmyrmU7CTViWUKjqsEwHkuw9J0zTLRyerTaHIoXma1cCEFdlNEwbIVn0PMcHZyqwbSCmhtEwLRycqbgGSnrdREUzIMsC9LrhGbwWyxrqDQuSaMOyHRTLmnslABgNG4bpwBFtmLYDo2G7lq3VTRiGDdtx4Bhtcu4FCWgEYDipIhZXEWqzQCGqKhiMh33P2wpyrWgu+plEsVLHQDyMs09a1WZuY7k1ZO8VpAwlVaQTKiq6gXRC7diCmFVDMawbiaGsGRiLKJ6byq8dTeCE9YN49lAex6webPswGGi18dzD/FA6htysvOxyafaKpV7B/PuWTcC2b6qMNV6r8ALOwwiy2jHIsSdzVew5UEBIFtEwbRy3LuU63PPMwQJ+9cQ0bMvGs4cq2LjK/QI4U9Dw4NNZSIKAiWzNcz7RoWwFv3h8sjU/Z9Vw1H2CO5oX4O/c9SwEAbjviSwAuNbjnt9O4t4npiGLAvZPa8iko3i9y5yp23+zH79+YgqSKGDfZBnDAyoufu0xRy370J5p7J8uAw6Qq9Tx0J5p1wvgQ3umcHCqAlFqzmt6yGOO1+2/2YdfPj4JURCw93AVA3EFF792s+u5+OmDB3D/UzkIACZydWRSB/CW87Yctexkror9U1WEZBGz5QYmc1XXtn7+cBEzBQ2S2GzL5w8X3Rd2lHVUNRshRUZVs5Ev6x7DizoaloV0IjI3FOletm5YMBr2fAdb24CtYVgIKWIrNUTDo3yxVockSVBDAgzLQbHmPnk+X9YRCslQZRG62Xx/rset1qE1LMiSCK1heU7gh+OgYVoQBMz1CLoHmA4w17MnAIJXKAqIkgjDtGG86LWXwaQKRRQBOFBEEYMewUSgXRSCLH5wgJmSjobdvoctyLXl0Wey+OZ/Pg3bdnCPOAXA/VoBAM9MFHD/77JQFQlPHywhk4rgFJdFP825jM2pAIblnc4GAEKKhKSAjvdMaoYFQGj+6XHe9uzP457HD0MUBEzNHsboYNSzJzXI1lTzIxmyJCKkLE0Cb6C7ezYvtV5Ytfv7vK8sfcSYG8d38+J5CqIgeJYFjlwZKQkC8hX3m0aQYxumDTUkIqbKUEPNC72bZybyMC0bA4kwTMvGMxP5jtQ3V9YQU2WsGY4hpsrItekR2DddgiAAo4NRCELztZvD2QoEAPFoCMLcazfPTxSaKz7DMhyn+drN3sNFmCYAATDN5ms3syUNgth8YhXE5ms3+6dKENB8yhbmXnt5/lABIoB4RII499qNYdqIqjJSiTCiquzZ1uVqA4VqHRW9uRKwXHWfi1WuNlrpLJoryzwWSghAMhJCKhFCMhJq8yQuAJIASRYBSUC7x/ZkLPyS/7yOHZJFxCOhZk+Yx7GjEQWmZaNu2jAtG9GI+0XScQC90fzu6w3LKwbDmpEExgabvc9jg1GscQlcgWaPZzwSgig26+zV4xkJyYhGZURC4tyf3jfPgUQIq4ajyAyqWDUcxUDCfR6kbpjNYTfBgSKL3rsozA3jSlLzz3a9v8PJCAaTKoaTEc+yQa4tT+7LoVprDtVXawae3JfzqARQrhmtOYiC0HztJaRIiEcUhNqNpswFBvP7qra7NzQMG5Ztt75TbgrVOhRJxFAyDEUSPVftTuTKEAUBo+kIREHARM57z8+FpBdZMxJf0v2Mf/t8Dk8dyOO3z+c8VybPBz+HczU8M1Fsu4q5FwSNGRbDsgnYDudrnk87QedhBFkZGeTYmYEIREGEblgQBREZj56tkcEYHMdGvlyH49gYGXTvfh+Mq9ANCweny9ANy7O+40MJCIKAYtWAIAgYH/Luql8/koTjAFP5Ghyn+drNlnVpKJKAmm5AkQRsWZd2LbtxfKDZ21E3IQjN124yg1GIIuBYgCg2X7s5cWMGiixBb1hQZAknbnR/wj9hwzAcAOVaA87cay9b1qWb5TULztxrN+tGEhiIhSEKzZWB6zwChGQshFQ8jHg0jFQ8jGTM/SbeXF3rzP2/d+/PqnS8GRA4c4FC2n3O3UBMwUCkORQzEFEwEPO+CazJxLFxVQJRVcbGVQms8ZgQv3EsibF0DKIoYCwdw0aP3p8NY0lsWZNCJqViy5qUZ09RJNwcRhofjmEsHfEMrNIJFaszMYwPRbE6E/NcGQmn+ZnQdAPlWsP72qIqsE0HjiDANp22N8+wLMO0HDi2ANNyEJa9FzQ8d6iE/VMVPHeoBE33SJKsm3hmooCJbA3PTBQ8yzZ72DTkSzpmSprn+wu0SjykwLIc1OoGLMuBGvI+F+tGEohHQmgYJuKRkOd3pDnMGYZpW0gnwt7DnAH3Vt57uIin9uWbD4Ie5yKsSJBEEaIgQhJFz2k440MJmJaNg9kKTMtue52dD8LGhqK+grCoqmAk7T39ZSFquoGZotY2qMqVdEzO1qDrFiZna8h5LH7qxeCnnV6Zu/liS1+DOd/97nfx2c9+FkNDzTlP5557Lq655hrfvz82GGs7DyPIMuEgKyODHDs9oOKsk0ahN5rJNtMeWc6PX5fGlrWzraSux3sEB0HmP2xZN4hLXrupNdHeq5seeGFIw8+8lFed2MwJ9vzhAjaOpVqvj+b8V65HsWJguqRhJBnB+a9c71r2zC2jePjpHGr1BqLhEM7cMupa9uRNQ3jNK1ZhaqaM0eEETt7kPo/utM0ZPPpMDrOlGtLJKE5rM+fmnFeM46n9BWSLNWQGojjnFeOuZdeOJrDz1Rt85fHZMDaATatLL8po7x68JmMhRMMyBAAKRM/gLqrKWDuSQEU3EG/zuUhGw5AUCY5lQ5BEJKPtcnOZKFTqECUJhYqBmu61TY+MjauTrY3JveoRCclIJ1Wk4s0eLq8eq1XpGMaGYq1tulalPSZ2C8CxawZ9LeLRDRNj6WhzNaBmePZsRdRme4mSA9sSEFG9e38EEThmdRIhRULDsDxThjQsC6PpKGKqjKpuomG5DzsH2tNUAMaHYxhKx5Gb9V5UEeRaeOKGNJ7an29d307c4H7NAoJ9R4BmwCSIAkJthp2DXJObQ6sCwmEJhml7DrWuycRxwoZ063Ps9ZCyZiSO044dQq6oYWgggjUj7mV7ReBhQGcuvm2zYU4vBT/dyim4GHomYHv88cdx7bXX4qKLLlrQ7ys+xvGDLhP2uzIyyLGjYRnDA5HWF8KzzgJwxpZRXzeYIPMfgGbQ1i5Qe7FTNmfaTiCe96oTxzwDtXlRVcGbz9uMSEyFVtXbTvZfNRSDZUUgSd6Ty2t1EyesT+OVJ4y2PRf5io4ta1NID4y1TQo8X/6kDUNID4z7Kh8JyxiIhdvuMDCciuCkDYOtoNjrmIMJFRvGkjDMZg/ioFcOrbqJVDyMNSPxtudCEIGNo4nmtmUQvHOPoZkGpFCpYygVQ6FS90wDUqubECEgoioQIbSdEL8qHWslEG0XTJx1wpivjbuD7KE7GFchSc30JpLkvWJvNBVDPCq3vtN+VgOqYRmSIEAUhbbHDskiLMtBSPbed7RV54bVts7NOVDS3Byo9vsJR1UZENS25cYzcbz6FatbDwheaUjmDQ2oiKhy+xxs9WCbfAdJcCvOrUQWPVYkA81r1plbMr63QVo7ksQJG4Z875+71HOmgixcGUqqSCfDqOoG0sk2PZ4BkxN3SzdzCi6GngnYHnvsMezduxdf+cpXcNxxx+EjH/kIBga8khkdaf1oou0q0V4QJGoPku25208wSz25tG5YCCsSoskwaprpOSE+yLkIMtwTtHyQhSsHpsr41RNTEAUBkzMaBhOqa29DJCQjEpYRVsS2PVDz83dK1XrbIEVVZMyWdZimDVkWvdNeAHAcB/lyA/VG88LueEwgCzp5fqaktc7bcU7K9bhBNu4GmgslmsGE51sL1KsUJCN6N4+9kFGBSEzFUKxz+c+iqoIzfAY088f2m+A2yPc6SILbSEiG7QgwG2bb79P8e/T7cB4oKXAP7PoQdNeOkNJ8UOnowo4uWqw9P7ulZwK2TCaDK664AmeccQb+9//+3/jEJz6Bz372s75/f83qVPcqt4SGhhOoaQaiEQVxj8nXQcsGUdEM/G6iBMOwoCgSTj8u4Xr8imZg30wNoiCgahg4fthH2aoJ23E8y240bNz3uywaloNQWMbGtWlkMh7zXXyei0wmgfRQvDVsMZp2nxsXtHy20kAyriIzGEU2X4MjS6513jNZQiwSwthwHIdnKtBsx7WsI0k4ZcsoFLm5aGVoKI6MSz0qmoFkTmu13ZDHOZ4u16GGFSDcXCcajoY8z/FYuY7hVKQ1aXxsJOlaPltpYN3qFJLREEq1BtRY2PP9bVwz2Brm9Hp/07M1DKZMJGMhlKoNRGKqa9nnDxVRtx0MJqOo6A3Yknt7APD8u5dTtpvHjsRVDPm8BkzN1jAz9zl2O2dA8xyrUR2KJMKwbM9zHNTeQ0WUdQvxuW26nDZt4vd7/di+WRiWjfRABLNFDQXdwBken7ctG4ZaSZK9Pm9A8zvVjWtyJK6iajQTjieSMtaOD/q6jrf7fAS5Js9/9/yci+nZGlaNJH1996Zna1Ajeuua1cnPUBALPce9YtEDtt27d+O666474mebNm3CzTff3Hr9rne9C+eff36g4+ZyFdh2m4H0PiUA0CoWNI/VWQsp69eB6TL27J1BLKygWjcQUwTX1BAzRQ3lktZ6gjkwkXdNGTJfdu3qFA4cKniW1Wt1HL9moLWDgl6rI5v1XnXl91yIADLxEGBZbY8ZpLxgWsgVasjOViCKIgTTvXxEFFDVGnj+YB624yAiCq5lNd2ArtXRmOvx0Ko6si5zm2aKGsy6gYSP9pjKliHAwUAshGK1jqlsGSMJ93lsda2B4WQIyUQUpXINda3hWmfBtFDXG5itG7Acx/Nc5Aoa9uzNtfJtrU6pEFzen6YbODxdxP65RM1DMdn1XOTzVeQLGipyHYZpI5+vIq4sm3VXgXrC5nt/k3EVpYru2fubK2h48tlsq9clHZFd2yOo2XwV1ZoOWBaqdQOz+SpibdrEz/faMS3odROz+Rp0w4LT5vP2/MF86/15fd4WMmwZ5JqciStzPWEKtIre9ncymUTba1aQa3KQc6HpBvKFKorFGmzH8fzu5QoannzuRZ+haOc+Q0EFPcfdMB8MB7XoAdv27duxffv2I35WLpdx88034y/+4i8ANIdaJI/NvWkJdGFy6XzZUrXhq2wiFvI3969HBFkIsnY0gXNPG/e140LQYXW/7bEqHcNgQoVt2xhMqN4T+NGcw7J2JAE1EsZAxHt3jSDDdUHzbdUNq3WOvURCMmq62SrbbuirV/jePzPAcM98qo7MYBTVat17LmbAvYeDGEqqWJWOomHZSMaUtju0+LV5PIWtx2uthLybx1PuhecWYMzP21qqbbqC8rv5e6Ch2QDnItCkfAEYHlBbveZLmei31+alBdETV6xoNIp/+qd/wumnn45TTz0VX//61wP3sHXDUs/b6hVBNpUOFEwEmEcTdMVOL7RHkIUgNd2AbljIDMSgG1Zr6ys3vufRBDhvw6kIzj1t3PfuHlFVwUkbh/wtGkGwRTwhRZrr0fUulyvpmC3XEQsrmC3XkSu51yNf1lHVG5AEEVW9gXzZe8FILwg0f2wBczez+ZqvtEV+59IGNf8Z6vR3NaoqOPukVQHmCksQBQGiIizZXOEgbR1k8/fg86b9nYv5Y/tqs7mt0F6Yl9r+V+ileiJgkyQJN954I/7n//yf0HUdGzZswK5duwIdw8/WVEEE/fL4nTjbj6KqgpM3pn1fVIM8wURVBZl01LUrfSHH7YXVVkCwCf9B90nsVkDqdzXgC+X9t5/frd7m821VdaNtvi0Avnt/dcOEIkpIxhWUKt6pOnpFkB6doMH5a05eBUeWIJhWx9IWLUS3ejy68VDTzXMRpK3nyyZjIRSLtbbXi26ci0C62Eu7kvREwAYAW7duxXe/+90F/367ramCCvLlyZV0HM5VEVUV1Io6Vg11PpmhH93sVeqnbuSgwxbdPG8CHDhC809PAVZnLeRJvNNlg5opaLjr4YnWvLRzTxv3DBL85tsK0vu7Kh1HKlmAbTlIJb2TCPeKoD06Qb6nw6mIrzlQQY/bj4I+ZHYlwOzSdJLA9ejC+wuSUofcLZuz1ja3E4LdmKNhGflKHYeyZUQiIWxa7b282bBs1HQDhuW+/VA39Uqv0nxdlnI4MsiFr5vnLVDeqABPoAt5Eu902aAmZ6vI5mvNhxpdb5uzze95C9L72xzyXeN7yHepP8dAbybv7BfdmtLSvd7t7kwn6RW+H17J1bIJ2Gx09sZc000cnC7P5f+q44R1g67lIyEZjuNAa5iQRKHtZOZufOF7ZUhtfn+5xtyqvZM2Di36xSTIha+bQUrQJ+Zu5NzrVtmgHMdBqWagYdjNVXseOdu63avkZ95aLz0ALfferW7ox15ooHvTSZZa0KTHdHTLJmBrlzg36I15craKimZgIBZGseqdxR1Cc2shX70j3frCO8DewyXYlgNREjo2pBbU/P5ysbCCXF3H2FDnhqm7IRqWodUNFGt1hKT2u2UA3dnaJKoqGIyHfWVmD3pcvxnGF9Kb43elWnN3hjhsBxAFeO7OELQe3XoA6pVhdQqum73QDcNuXesZePjTS1tT9bMVc9aCfmDCigTHAeoNC44Dz2AwSO9It3p0mqkPRITDzQuJVyqEri9N9zkJvFuCBqQOBAhO889OH9vvE/NMQcODTzfzFE1ka4iE5bYTwf0GVEEyjAd5wp9fbBOJhqDVGp6LbYaSKjatHmj1vLZbSLDUC0x6ZVidFqZrPcsOMDFTedFc02AJk1cqDu13xrIJ2PYcKOCY1cmOrKACmpv8nrhhsJWzyWuT30A9Hgvo0fErpAit5LZegs7PA4Kt8BtMqtC0BgaTasfyKgHdyUfVLNvM1O9rKDlgsOv3vM3nxUoPqL72KPWrm8H5/GKbUUHEVK7qudgmqgZL3xCkrYNMBfCrV4bVaWEWMh/Mbz4xv3nK6Egc2n/5lk3Ali3UkIqHOtZ7EFUVnLFlpCupLHTDhqY1YEdCbcv6vXEFSUBZ001MzVZh2Q5KmoGa7j4/Dwi2JyYQbHKp3yG1IHPjomEZhYqOiZkyYqriHZA6wNMHC629StvtnRfkaTzIeQu6p6lf3XxAAPDCDauDN65A8yDnpgLMJ+Rs137B6mEiX9EBp81QcheH1Wnhgl7v/ZQNmqeMqJOWz6etC0863XgiyJV0TM3WoMgiSlrNM9Fn0E2X/fZg5Cs6VEX23ZuTr+iwLBuRaAiVWsOzfK6kY7ZUR1RVMFvyTmQaJPljkLlxNd3E4VkNtm2jXDNR0917PGbLOvKVOhRRRK1uYrZNMtUgT+NBes2GUxGccWymNYetkwldgwz5BtHMl6Y292xMePemBvksB2lrrWHCsmzYDgDHeypAEEEfUro5rE4L042guBfmV9LKtWwCtpGBSEeH37pFr5vIl5sBk26Y0Ovec82Crfz01yMwGFehGyYOTJchiULb3hxVkbHvcAUNw0RIkfHK40c9yxerDcwUNSiydyLjWt1EudqALYioVhvth5J8zo1rBqQS0gOxtoFS3bCgSGJrcUnd6FwC3yC9ZjXdQL5Sh6ooyFfqGBrwbkO/5m8W8cFIR4dwX+A0e1TbNErgYUOfba3VTRSrBiIhGVrDhObxfQoiSLAd9BxzCLX7uhkUL/X8Slq5lk3AduzawY7udBCU3ycpNSwjEQnBAZCQQ1DbTnD1l0x1pqDhtl/tg6Y1EImEcOEfrHe9wURVGamEinJZRyKhwmuPS6B58ypUdBiWDUVqBoVue11quomD0xU4zT4HaLr7DVTTTfx27yxikRCqWgPrRhPAwNHLBkmQGiRQCrp/ZhBB9s/s1k08yHBd0F6l+W2hRocSmCp49xYH2fUhyDzISFiGGlJgWCbUkIJImyEqvwFpkIeawGlIApyLftQLvUq9EBT3Qh1oeVk2V4pIWIZtL82yxCBbU0VCMmRZaKXf8MzZJgDDyQhsx4YoiJ7Dvr/bP4tnDhYQCcvQcjX8bn8C56TGj1o2V9JR0wwk4ipqmuF5owWAyWwFtbrVutFMZis45ZjMUcuWtDoGE2Gk4mEUKnWUNPfNIHXDxPBABGOZBA5ny55bBUXVYAlS/QZKQffPDMpv3q+u5kDzOVy3oIUPzu/96SHI3EZVESGKobY7HcABKlodjuNAECzPejR3WzjYmu927mlrPB9qRtOx1gOQ10PNQlbA9VsSUd+LQHqkV6kX0kj0Qh1oeeEnqAMCbU0lABvGkv5WGTnATEl70Ya5KdeijbljSVIzsGuYbXZcEOb+aR/TmmLREMKKCEkCwoqIWNR9scRoKgZRnEFFMyCKAkZT7j1Wg3EVkiSg3jAhSe2HZoPMKQyy0XiQst3SrWXvQYbr5nuVDk6VIfpoj6GkimhEQaGiIRpps9ClbqJhOLAdBw3bO39VkLK6YSIZDUEQAMeBZ9A/OVtFvlzHQCyMfNk7t2KtbmIwHsbakbiv3pFA6VD6LIlooMSyXe5V6kYOxG7phTrQ4lmMnmUGbJ3iMwAKtMoowBLyY8dTePy5HAzTxvCAimPHU65lg6woBYDj16Xx3KEyNL2BiBrC8evSrmXXjiaw/az1rcnzbkOnQLANqFeCbixyCTL8FlVlDCZUFCs6BuLth8pruolD2QpsAOLca9fFAbqJ3+7NtW7660bjrsPfQco6dnPawHxZx+M5JWhuxW71jvRbz0uQIKyb761bORC7qRfq0E29MPzdCxarZ7m3rxRLrBspNYLmbPMb3K0dTeCS1x7jK1AKmhNrOBXBhX+w3vew4drRhOe///vH9rsBdT/qhT0KG4aFim6gXaaQXElHsaJDkiQUK3rbofLnDxcxmathOBXFVKGG5w8XXT8bzeFvFfG5lcZePWFBygoisGEsgZAioWFYEDxGUNdk4jhhQ7o1zNkut6LfHSKC6uaxuyFQEtou9ipxTlhv6ZXh716wWJ9NBmwuupVSY768r5w/AS/sQQKloE9+UVUGBLXnewN6STf3KPQb3DUXBuiIhRXMlr2DMK1uYqZYD7DiUmgORQqA0KZ7uTn8LaLRsCBJoudwa9CyaliGJAgQ2y0OUBWcuSXjey5WkB0igujmsbshaBDWrV6lfuuZXO4YQL9gsT6b/MS7CPph7MZFqlcu7HySWpiu7WcYtD18psiIhGWkk2EokoSIKrVdcblxLIlnRuIQJQmxUBwbPVYxB10I0o2yQICUDF28GfXjja4Xhvb6cU7Ych4yZAD9gsX6bK7cM9xGt+diLOW2O0H14w2mF3RrP8Mg7REkHcpQUsW60WRrtXO7uY3DqQjO37rO9xzEbi0E6caiEc5h6029EDj6tdwfdPsxgO6mxfhs8krhomur9oJ8iQPkYVtIPXwPcfAGsyCB5isGnNsYZE6R33QoQcrOW65zELt5M+KNrr91Y0/jftVPAfRywDuvh64Mcwb5EgvA+HAciizAMJ2Obb+1kNVWXZtI7HMv0fmy3ZjA381hiyCfoSBzG7s1p4gX4Bd081zwPPeWbuSZ6/aDbpBrJy0PDNgWWdBhspAiQhQECErnvvALGWrt1hw9v3uJdmsCf78OW/CGT9QZ3coz1+0HXb/XTlo+2qQRp06b/xKPDUV99WytHoohHBKx2mMD7MDmhloPTlUwMVP1laW+phuYKWqo6UbHys5f/JKxEERBQK3NvqrzF8qlKkvU64J8T5e7oNchP9eAwNuQqQqGByJdG6nxc+2k5YM9bEvA90q1gKtEfQ/tBdjyav643eixmr/4laqNjk7K71bZfrWcV6rRC/q1t7gbujV02SvzD4NcO3sFr0MvX++3cp/oxpyprqV6CLDlVeB6LGDIIBJTMRTr4KT8LpXtR7yJL1y/3WBWwiR3v7o5dNkL0xGCXDt7Aa9DnbGiAragF+AgE1F/+3wODctGSBJx0sYhz8DK70bx0bCMQqWOgzMVxFUFm1a7rxKt1ZvbBFX0BuJqCKuHPYZQBSARVaA3TERDiq/ttHxvb7SAIYNMOoqsZXlXAt2bPN8LF+Bu4U18YWq6gQf2ZFu7Ipy5JdPz520l9Bb7tZDrUK+37+8Lcu1carwOdcaK+UYvJJO83yAsV9IxOVtDLKwgV9cx5jHfLMhG8TXdxIHpMhoNC/mQhOPXDbqWPZSt4JePH25tgr16OIbhgaPnptJ0E88cfOFcHDuect2rcZ4Ap5nRvs2Et+XeYxXUUvfS8Ca+MAezFTy5d7a568NUBaODEWxZO7jU1fLE794LeC56y0KuQ0t97exFK+bqHTTCz5V07J+uQJFEGJbtGYQBQMOw4TgGDNNj9+l5PjeKn5ytoFozkYwrKFUMTM5WXBOE5soaYqqMdFLFbElHrqy5Hre5V2OkdS689moEmucuElaQWcJdH/pRLwwDdPvG1a20LEutblgQBCAckqAbJupG7/diAPzuvRjPRe8Ieh3qhWtnL1oxAVvQCF+rm8gVdV/7KkZCMgAH9boJURLmXh9dkI3iVUWGIzioN2w4ggNVcT/u+FACgpBFsdKAIAgYH3LfU7S5V6Mwt1ej9/6LAHtpFqpXhgG6dePqVlqWXrAqHUM8EkK1biIeCWFVOuZZvp+CUXp52NYLE+Q61CvXzl6zbNJ6tNuoOqoqGIyHoRsGBuPhto0fCcuQJRFlrQ5ZEr33VRSAuBqCKDX/9Oo5i6oKxtIxhBURY2nvXrvxTBxrMnGIooM1mTjGM3HXslvWDeLVJ48hMxjCq08ew5Z17sM3w6kINo4l4Ag2No4lfO2/qCoSssUqVEVqe+727M/jpw/tx579ec9ywAs9NMsxDcFyD3S7lZYlcD26kMoiqspYMxLHeDqCNSNxRFWPrcLmgtHDuRqemSguy88yNbGtF8dyv3Yu1JKdhRtvvBGSJOGqq64CAJRKJfz1X/81Dhw4gHQ6jRtvvBGZTMb38fZNlbHGY6L9TEHDg09nIQkCJrI1RMKyZ6Ci6SamZmtwHAeCYEDT3W8ws0Udjzw7M9d7UMam1UnX+WNB6lHTTVR1A4okoaobqOnuTxkHpsp47LlZOI6Nx56bxYaxJNaOHr2X7cBUGb96YgqiIGByRsNgQnUtO1/+rocnIAoCnj5QQiQsu5bfsz+P7/78OYiCgPucLC557SbX4HG5J3/sduLMpX7K71ZaliC61XNXq5sYjIexdiTe0ZXR3dYLn4vlrJfaejnjHMSjW/QetnK5jA9/+MP42te+dsTPb7zxRmzduhW7d+/GW97yFnzqU58KdFwR3k/t+YoOSRCQHlAhCQLyFd3zeCWtjsFEGJtWJzGYCKOk1T3LDsRCWDsax0As5Fk2X9FhWQ5CIQmW5XjWI1/RIQoiUkkVoiB6lt0/XUZFayCkyKhoDeyfdt/bcarQzO02MhiBKAiYKlRdywYtP5ErQxQEjKabZSdy7vVYCckfu5E4s1ee8ucvqmtG4r63N/OTMBoIlvS0YdiwbBsNw+7YZ6gfc/n1yudiOeuVtgaW9+gE0L2kw/1s0T9td955JzZs2IB3vvOdR/z8rrvuwr/9278BAC666CJ84hOfgGEYUBR/jWXD+8szGFdhOQ5mizosx2k7b2s0FYMozqCimRBFAaMp9zksrbI1o21ZVZExU9QwW9JhO97z0oKUTUQVOA5Q0ww4TvO1V31tZwbTeQ2243jWN2j58aEE7nOymJptlvWaS9ePyR97QdCn/G7vldrptCxBcwpOzFRaOQU3jLl/3oLox1x+7P3pvp5p62U+OkFHt+h3yDe96U0AgC984QtH/Hx6ero1BCrLMuLxOGZnZzE6OurruKedMIaYxwc2k0kgPRRHrqhhaCCC0XTU83iZTAKD6RgOzVSwejiOjavd815kMgmEoyHsO1zC+rEkTto07FrWkSScdoKOum4irMpYszqFjEtdHEnCH5xqwrYciJLgWfasuArNdFAo6UglVZx16lrEI0c/H0HeW9DymUwCqcGor3MBAEPDCdQ0A1vWD7rWl44UiauoGg5EQUAiKWPtuPu5q2gG9s3UIAoCqoaB44cTXTnPmUxnAiUAmJ6tYTBlIhkLoVRtIBJTPb8jJxyTaa3mHhqKu5YNqqIZiGgGohGlLz6bQT4XL9bJtqPF8eLvCADP7wgtH10L2Hbv3o3rrrvuiJ9t2rQJN998s6/fdxwHouh/xDY/W0VNkTzL6LoBwbKgV3VfPQKiZSEdVSBaFrJZj6E93cDegwWYpoW9BwuIK6J7HraChsmpcrNHoOggl4lDcKmLphuAaUEWBNimDa1NvV+xfrD15KdVdGgeQ6hxRcSWVc1EvF7vbSHlRxJhjCQyvo89kkkgmy171peOlIkrc22teLb1TFFDuaS1el0OTORd51cuuC5z7dcpmm4gX6iiWKzBdhwMxWTXz72mG9BrdTTmeuPafUeCJMPup1Wt8/x+LlrlO9x2tDjmvyMAkC9UPb8j1HtEUcDQkPsiQjddC9i2b9+O7du3+y4/MjKCmZkZjI2NwTRNVKtVpFIp37/fbtFBkB0G5sv7vWAHSYYLARgfjkGWRZim3XZFabe2TOHk5P7mt617ac6NX90ajgy0J26fDi8y99jK0G9bU1Fn9Exaj23btuHWW28FANx2223YunWr7/lrQPtFB/NBVa1u4XCuilzJ+8kzcBoCn8lwo2EZIUWCLIoIKd7bPAHLe9I6LZzfSflBJ/t3U5D0G0E+937LBvlO92OgSytLVFUwkvboHOgx3Ui/s9L0zFXo6quvxrXXXosdO3YgkUjghhtuCPT77RYdAIBpWajqgOVngnSAC3aQZLi9MGm1X3sPqCnocF03e1387nTQC0OMgVZ+9sD3lGi56IXv/3KwZAHbfP61ealUCl/+8pcXfLzRlPcTdiQkw3YEmA0Toih67kYABB+W2bhqAPmKjsG42tGhy25g70F/65WAO9BOB3UTDcNqTQVYipWt3Zxi0E2cvkD9rleuWf1u2dyppwoaFNl9sj8EYMNYEooswDCdtkOXQLA0BIdyzVxlh3JVRNXevrCy96C/9UrA/eI8esVizfsi7AATM9UXpd9Iuh+3i0/jvRKE+cWeCVoOeuWa1e+WzVmbn8PmdjFrzh0TIQoCBKWzH5h+fHrotxsXvaBXAu5AefQEYHw47uuBqR+/T93Cc0HLQa9cs/rdsgnY2s1hi6oKVg/FfA9bBsGnB1psvRBwB1mpFuSBid+nF/Bc0HLRC9esfrdsvv3rRxMIe+Rhq+kGnp8somHZKJTrHR225NPDwvmdtE69ye9OB/24c0Av4LkgonnLJmCLhGXYtuP697mSjsnZGmJhBbm6jrEh95xtC8Gnh+C4vcrKEuQ7wu/TC3guiAjooTxsi8IBnLk/aemthM3fg2CeIiIicrNsetjaGUqqGBuKwTQtJGMhz1xptDi6ufl7v6VC4GpAIiLysmICtqiq4OSN6b66iXdT0ICmm3mxOr29Sj8GP1wNSEREXlZMwAZwLsi8oAFNt/Ni+Zm0HkS3g58gwavfslwNSEREXnhXWIGCBjT91vvTzeAn0AbiAcpyNSAREXlhwNYh/TRnKmhA02+9P90MfoIEr0EDXfYAExGRm96+8/aJfpsztZA9Ffut96dbwU+gDcT7LNAlIqLexTtIB/TbkCEQPKBh708TE8CuHP3Ua05Eyx8Dtg5gT8rKwgSwy1+/9ZoTLQU+1CwuRhYdwJ4UouWlH3vNiRYTH2oW38ra6aCLoqqC4YEIP7BEywB7zYm8vfihhjvVLA5ehYiIfg97zYm88aFm8fEMExEdBecfErnjQ83iY8BGRH2NE5+JlgYfahYXAzYi6luc+ExEKwUXHRBR3+LEZyJaKdjD1iEzBQ35io7BuIrhVGSpq0O0InDiMxGtFLy6dcBMQcMvH5+EJAiwHAevOXmVZ9DG4I6oMzjxmYhWCgZsHZCv6JAEAekBFbNFHfmK7hqIBQ3uiMgbJz4T0UrAOWwearqBmaKGmm54lhuMq7AcB7NFHZbjYDCuupbNV3RYloNQSIJlOchX9E5Xm4iIiJYZ9rC5CLL6bDgVwWtOXuVrmFNVZMwUNcyWdNiOA1VhExAREZG3JYsWbrzxRkiShKuuugoAcN999+Gqq67C2NgYAODEE0/Eddddt1TVC7yX4HAq4mtoM6LKOGlDGrbjQBQERFQGbERExJyC5G3Ro4VyuYzrrrsOP/zhD/Gud72r9fPHH38cV1xxBd773vcu6Lj5ko6BeLhT1UQ0LEOrGyjW6ghJYsdWn0XDMhKxUKvnjqvaiIiIOQWpnUWfw3bnnXdiw4YNeOc733nEzx977DH84he/wM6dO3HllVdicnIy0HHv3zONmYLWyarCgQDBaf7ZKfOr2saGor6+kH7n0RERUf9iTkFqZ9G7d970pjcBAL7whS8c8fNEIoHt27fjggsuwDe/+U1cc801uOWWW3wfNx4Nw5ElZDKJjtRzeraGVSNJJGMhlKoNRGIqMuloR47tV0UzsG+mBlEQUDUMHD+cQDyyPJ+4OtVutDTYfv2LbdcbInEVVaM5VSaRlLF2fNDX9Z7tt3J4BmyXX345BMG9d+lf/uVfXP9u9+7dL5mDtmnTJtx8881HLf+JT3yi9f+XXXYZPvvZz6JcLiOR8PdhzOarOGYsgWy27Kt8O5puIF+ooliswXYcDMVkZC2rI8f2a6aooVzSWvPoDkzkMTyw/FKAZDKdazdafGy//sW26y2ZuDI3h02BVtGhtckiwPbrT6IoYGgoHvj3PAO2P//zPwcA3H777ahUKvjTP/1TSJKE733ve0gmk54H3r59O7Zv3+6rErZt4ytf+Qre8573QJKk1s9f/P/tdW7YEuiNhJzM4k5EtHIwpyB58YwA3vCGNwAAvvrVr+KWW26BKDanvJ177rl429ve1rFKiKKI22+/HevXr8eFF16IW2+9FaeeeiqiUf9DkHFV9kxYuxBL/eXphaCRiGi54+rMlaOf29pXl00+n0e9Xkck0gyGqtUqisViRyty/fXX4yMf+QhuuukmpNNp7Nq1K9Dvt0tY26+WOmgkIlrOuDpz5ej3tvYVsF100UV461vfivPPPx+O4+BHP/oR3vrWt76sf3g+/9q8Y489NtAig9+3dctI27Qe/RxZExFR5wXNuUn9q9/b2lfAdvXVV+Pkk0/GvffeCwC49tprsW3btq5WLKjBpArbdlz/vt8jayIi6jzOFV45+r2tfdd2eHgYAwMDME2zNTTaT/o9siYios7jXOGVo9/b2lfi3FtvvRUf+MAHUC6XUa1W8Vd/9Vf49re/3e26dVS3I+sgCW6ZDJeIqHdEVQXDA5G+u4FTcP3c1r6ilptvvhnf+c53MDIyAgB497vfjf/6X//ry57HtpiiqoLVQ7HWBu2dbKwgw60cmiUiIqKgfPWw2bbdCtYAYHR0tJXio1dobbbxqOkGfrc/j2cPlfC7/fmO9m4F2VKE248QERFRUL6irlQqhTvuuKP1+o477sDAwEDXKrUQTx/wDsImshU89mwOB6bKeOzZHCaylbbH9Dt0GWS4td8nPRItFKcCEBEtnK9o4SMf+Qje//734+///u8BAIqi4KabbupqxYKaLmoYiIddhxcL1QbKWgMxVUFVN1CoNjyPF2ToMshExn6f9Ei0EJwKQET08vgK2I499lj86Ec/wt69e2HbNjZu3AhZ7rGeIfeMHgCAgVgI8YgCWRQRjygYiIU8ywddVRokwS2T4dJKw1XaREQvj6+oq1arYdeuXbj77rthmiZe85rX4G//9m8RjwffvLRbMqkohpLuOx2sycRxyjFDqOoGYqqCNRnvunPokqhz+H0iInp5BMdx2vRNNYdELcvC5ZdfDsuy8I1vfAOWZeH6669fjDr6cvBQAWHFe7P4mYLWWiXqZ89R7oywODKZBLLZ8lJXgxbIb/vx+9R7+N3rb2y//iSKAoaGgnd4+XrMfeSRR/Af//Efrdef/OQnsWPHjsD/WDdFwnLbnQ4O5aoQBQGHclVE1fY3DQ5dEnUOv09ERAvna5WoZVmwbbv12rZtSJJ3b1avYToNIiIi6le+etjOPvts/Lf/9t9w2WWXAQC++c1v4qyzzupqxTqNc2iIiIioX/maw2aaJv7xH/8RP//5z2FZFl772tfi/e9/P8Lh8GLU0ZdcruI5JApwDk2v4jyM/sb2619su/7G9utPC53D5itg6wd+AjbqTbzo9De2X/9i2/U3tl9Tv3XGdHXRwe23345du3ZhdnYWL47vHnzwwcD/YLfkSzoG4r3T40dERETdtZKScvsK2P7X//pf+Ju/+Rscf/zxEASh23VakPv3TOPUTcO+0nUQERFR/1tJSbl9BWzxeByvf/3ru12Xl0USBOQrOgM2IiKiFWIlLSj0ldbjFa94xRGbv/ciy3EwGHff6YCIiIiWl/n9uceGost6OBRo08N2+umnQxAEWJaFb33rWwiFQpBlGY7jQBCEnprDdvKGIfauERERrTArJSm3Z8D2gx/8YLHq8bIVaw0kop1ttH5beUJERETLk2fAtn//fpx99tn4yU9+ctS/Hx8f70qlFkKE0NHJhitp5QnRSsGHMCLqV54B2w9/+EOcffbZ+Nd//deX/J0gCLjgggu6VrGgbHR2suFKWnlCtBLwIYyI+plnhPPJT34SAI4asPWa9aMJhJXO7W+6klaeEK0E/foQxl5BIgLaBGxXXnml5y9/+ctf7mhlXo5IWO7oTgfzK094oSRaHvrxIYy9gkQ0z/OK9YY3vGGx6tGTVsrKE6KVoB8fwvq1V5CIOs8zYLvkkkta/3/48GE89dRTOOecczA1NYXVq1d3vXKdxqEFopWt3x7C+rFXkIi6w1fi3J/97Ge49NJL8fGPfxy5XA47duxYcCLdBx54AG9+85tx8cUX4x3veAcmJiYAAKVSCe95z3uwfft2/Nmf/Rmy2eyCju9mfmjhcK6GZyaKqOlGR49PRNRpKykpKBF58xWwffGLX8S3v/1tJJNJjIyM4Bvf+AY+//nPL+gf/NCHPoRPfvKT+N73voedO3e2FjbceOON2Lp1K3bv3o23vOUt+NSnPrWg47t58dCCKDRTgBAR9bqoqmB4IMJgjWiF8xWwWZaFkZGR1usTTjhhQZvANxoNXH311Tj++OMBAMcddxwmJycBAHfddRd27twJALjoootw9913wzA61wvGoQUiIiLqV76ilkgkgkOHDrWCtPvvvx/hcDjwPxYKhXDxxRcDAGzbxhe/+MXWpvLT09PIZDLNSsky4vE4ZmdnMTo66uvYQ0Px9mWGE6hpBqIRBfEIn1Z7SSaTWOoq0MvA9utfbLv+xvZbOXwFbH/1V3+FK664AtlsFm9729uwd+9efOELX/D8nd27d+O666474mebNm3CzTffjEajgWuvvRamaeK9733vUX/fcRyIoq8OQABALlfxldZDAKBVLGgV3fexqbsymQSy2fJSV4MWiO3Xv9h2/Y3t159EUfDVyfT7fAVsZ5xxBr797W/joYcegm3bOPXUU5FOpz1/Z/v27di+fftLfl6tVvG+970PqVQKX/rSl6AozZ6ukZERzMzMYGxsDKZpolqtIpVKBX5DRERERMuNry6sO+64A8lkEtu2bcN5550Hx3Fce8ba+dCHPoT169fjxhtvRCgUav1827ZtuPXWWwEAt912G7Zu3doK5vpBTTcwU9S4+pSIiIg6zlfAdt111+HXv/41AOD222/Hzp07sW7dusD/2BNPPIE777wTDz74IC655BJcfPHFePe73w0AuPrqq/Hwww9jx44d+MY3voGPfvSjgY+/VJgyhIiIiLpJcByn7cSvZ599Fu973/twwgkn4IknnsCnPvUpvOpVr1qM+vnmdw5bN8wUNRzO1VrZyMeGohgeiCxJXfpNTTcQianQqjrTFvQpzqPpX2y7/sb2608LncPmq4ftmGOOwU033YTf/OY32LVrV88FawCgLWFeNaYMWZj5nsmD0xX2TBIREXnwjCxOP/30I/KtNRoNXH755VAUBYIg4MEHH+x6Bf3aN1XGmuHYkvTS9OMehb1gPplxMhZCsVjjPolEREQuPAO2H/zgB4tVj5dNhLCkN/x+26OwF8z3TJaqDfZMEhERefC8Q+7fvx9nn302fvKTnxz178fHx7tSqYWwwRt+v5nvmYzEVAzF2DNJRETkxjPC+eEPf4izzz4b//qv//qSvxMEARdccEHXKhbU+tEEwoq01NWggKKqgkw6iqxlLXVViIiIepavVaL9YClXidLL028rnWq64Xu+YpCy3apDt/Vb+9EL2Hb9je3Xn7qy08GVV17p+ctf/vKXA/+DRP1sfmWrKAiwHQebxwdcA6YgZbtVByIiWh48A7Y3vOENi1UPor4wv7J1Puee10KXIGW7VQciIloePAO2Sy655CU/+9a3voW3ve1tXasQUS8LknOvW/n5mPePiGjlCXylv+WWWxiw0YoVJOdet/LzMe8fEdHKEzhgWyZrFIgWLEjOvW7l52PePyKilcXX1lQvdvLJJ3ejHkRERETkwlcP26FDh1r///73vx+Tk5NQVRWDg4NdqxgRERERNfkK2C677DJMT08jFotBFEWUy2VIkoTBwUH8wz/8A84444xu15OIiIhoxfIVsL361a/GWWedhTe96U0AgB//+Mf45S9/iUsvvRQf+9jH8J3vfKebdSQiIiJa0XzNYfvd737XCtaAZn62xx9/HCeeeCIMw+hW3YgWrKYbmClqqOn8fBIRLWcr5XrvK2AzTRN79uxpvd6zZw9s20a9Xodpml2rHNFCzO8EcDhXwzMTxWX/JSYiWqlW0vXe15DoX//1X+Pyyy/HscceC9u2sW/fPtxwww34/Oc/j9e//vXdriNRINwJgIhoZVhJ13tfAdu2bdvw4x//GPfffz9kWcbpp5+OgYEBvOIVr0A8HnwD037RSxtsk3/cCYCIaGVYSdd7X+/Mtm185zvfwd133w3TNPGa17wGV1555bIP1rjBdn/iTgBERCvDSrre+5rD9tnPfha/+tWv8I53vAPvfOc78dBDD2HXrl3drtuSenE3qygIqNU5V6+fRFUFwwORZf3lJSKilXO999XD9vOf/xz/7//9PyhK82Sce+65eOMb34gPf/jDXa3cUlpJ3axERETU23xFIY7jtII1AAiFQke8Xo5WUjcrERER9TZfAdvxxx+PT3/60/jzP/9zCIKAr3/969iyZUu367bkuME2ERER9QJfc9g+9rGPoVQq4dJLL8Vb3/pW5HI5XHbZZd2uGxERERHBZw9bPB7HZz7zmSN+dsYZZ+DBBx/sSqWIiIiI6AULnknvOM6Cfu+BBx7AddddB8MwkEql8OlPfxrj4+O47777cNVVV2FsbAwAcOKJJ+K6665baPWIiIiIlo0FB2yCICzo9z70oQ/hH//xH3H88cfj3//93/HJT34SX/rSl/D444/jiiuuwHvf+96FVqnjmDiXiIjo5eP99OXzNYetUxqNBq6++mocf/zxAIDjjjsOk5OTAIDHHnsMv/jFL7Bz505ceeWVrZ/7pXU4T9pK2p+MiIioW3g/7QzPHrbTTz/9qD1pjuNA1/XA/1goFMLFF18MoLl7whe/+MXWXqSJRALbt2/HBRdcgG9+85u45pprcMstt/g+9mzNwKbxGOKRzkTu07M1DKZMJGMhlKoNRGIqMuloR45NL5XJJJa6CvQysP36F9uuv/VD+/F+2hmC4zEZbWJiwvOXx8fHXf9u9+7dL5mDtmnTJtx8881oNBq49tprUSwW8eUvf/moOd22bt2Kn/70p0gk/H0Y733oIFKJEIYHIq5lgnTJcmuqxZPJJJDNlpe6GrRA3Wg/Dp8sDn73+lu/tB/vp0cSRQFDQ8G39vTsYfMKyNrZvn07tm/f/pKfV6tVvO9970MqlcKXvvQlKIoC27bxla98Be95z3sgSVKr7Iv/vx0b3rsRBP3AMHEu0dLgxZ1oeeH9tDMWdQ4b0Fx0sH79etx4440IhULNSogibr/9dvz4xz8GANx666049dRTEY367zJdP5rw/BAsZG/QlbI/GVEv4T6+RMsP76cv36JukPnEE0/gzjvvxObNm3HJJZcAAEZGRvB//+//xfXXX4+PfOQjuOmmm5BOpwNvLh8Jy7Bt91Qj0bCMWt1EqVqHLEvcG5SoR3EfXyKil1rUK+GJJ56Ip5566qh/d+yxxwZaZLAQAhw4QvNPIupNHD4hInqpFfPoWqubiIQVZKIKKrW5Cc28ERD1JO7jS0R0pEWfw7ZUOMxCRERE/WrFRC0cZiFqj+k0iIh604oJ2AAOsxB5YToNIqLetWKGRInIG9NpEBH1LgZsRASA8zyJiHoZr8hEBIDzPImIetmKCtg4oZrIG+d5EhH1pmUTsGl1E2HFfe9RTqgmIiKifrVs5rDtmyqjphuuf88J1URERNSvlk3AJsI7COOEaiIiIupXyyZqseEdhHFCNREREfWrZROwrR9NeM5hAzihmmil48IjIupXyyZgi4Rl2Laz1NUgoh7FhUdE1M+WzRw2IiIvXHhERP2MARsRrQhceERE/YxXLCJaEbjwiIj6GQM2IloxuPCIiPoVh0SJiIiIehwDNiIiIqIex4CNiIiIqMcxYCMiIiLqccsmYNOYU4mIiIiWqWUTsO2bKqOmG0tdDSIiIqKOWzYBmwhmLiciIqLladkEbDaYuZyIiIiWp0UP2O6//378yZ/8CXbu3Ikrr7wSxWIRAFAqlfCe97wH27dvx5/92Z8hm80GOu760UTfJMSs6QZmihqHcImIiMiXRQ/Y/sf/+B/YtWsXvv/972Pz5s346le/CgC48cYbsXXrVuzevRtvectb8KlPfWqxq7YoarqBZyaKOJyr4ZmJIoM2IiIiamvRA7bbbrsNmzdvhmEYmJqaQjKZBADcdddd2LlzJwDgoosuwt133w3D8B/M9Muig1rdRMOwYNo2GobFeXdERETU1qIHbIqi4KmnnsK2bdvw61//Gjt27AAATE9PI5PJAABkWUY8Hsfs7Kzv4/bNogMHmJip4uBUBRMzVcBZ6goRERFRr+vaLP3du3fjuuuuO+JnmzZtws0334zjjjsO99xzD2655RZcc801uOWWW17y+47jQBT9x5OxRBhrx1OIR3p7HpsjSThhUwaKLMIwbQwNxZFJR5e6Wksuk0ksdRXoZWD79S+2XX9j+60cXQvYtm/fju3btx/xs3q9jjvuuAOvf/3rAQBvfOMbcf311wMARkZGMDMzg7GxMZimiWq1ilQq5fvfS0cVaBUdWkXv2HvoBk03oGt1NAQBtuNAq+rIWtZSV2tJZTIJZLPlpa4GLRDbr3+x7fob268/iaKAoaF48N/rQl1cybKMj3/843j88ccBNHvhzjjjDADAtm3bcOuttwJoznPbunUrFMV/b1mkT1J6RFUFm8cHMDYUxebxgb5Z2UpERERLZ1GjHEmS8LnPfQ4f/ehHYVkWRkdHW6tBr776alx77bXYsWMHEokEbrjhhsWs2lHVdAO1uoloWG4bWAUpG1UVBmpERETkm+A4zrKY9p7LVWDb3m8laAD2zEQR4tzQpVdvWJCy9FLs1u9vbL/+xbbrb2y//tQXQ6JLKWj+s1rdhCgIiEcViIL3CtQgZYmIiIiCWjkBW8D8Z9GwDNtxUKkZsB3vba+ClCUiIiIKauVEFnP5zyRBgOU42DCW9Cw+vzjAzxBqkLJEREREQa2cgE0AxofjUGQBhukAQmcPz4UERERE1C0rJmCLhmWEFBGiIEBQ2g9bBl1IMFPQkK/oGIyrGE5FOl19IiIiWsGWTcCm1U2EFcn174MOW754IUGlNre61OV3Zgoafvn4ZGu49TUnr2LQRkRERB2zbBYd+Nn8PaoqGB6I+Bq6DLKQIF/RIQkC0gMqJEFAvsd3WyAiIqL+smx62OY3f+/UPLIgPXKDcRWW42C2qMNyHAzG1Y7UgYiIiAhYRgGbjc6n0/C7kGA4FcFrTl7FOWxERETUFcsmYFs/mvCcw9Ztw6kIAzUiIiLqimUzh61fNn8nIiIiCmrZBGxEREREyxUDNiIiIqIex4CNiIiIqMcxYCMiIiLqcQzYiIiIiHrcilpaWdMN31tTEREREfWKFROwBd3MnYiIiKhXrJgh0Rdv5i4KzW2siIiIiPrBignYgmzmTkRERNRLVkzUEmQzdyIiIqJesmICNsD/Zu5EREREvWTFDIkSERER9SsGbEREREQ9jgEbERERUY9jwEZERETU4xiwEREREfW4RV8lev/99+PTn/40DMPA+Pg4rr/+egwMDOC+++7DVVddhbGxMQDAiSeeiOuuu26xq0dERETUcwTHcZzF/AfPP/98fOlLX8LmzZtxww03QBRFfPCDH8Q///M/wzAMvPe9713QcXO5Cmx7Ud8KdUgmk0A2W17qatACsf36F9uuv7H9+pMoChgaigf/vS7UxdNtt92GzZs3wzAMTE1NIZlMAgAee+wx/OIXv8DOnTtx5ZVXYnJycrGrRkRERNSTFr2HDQCeeuopvPOd74Qsy/jWt76FVatW4aMf/SjOOeccXHDBBfjmN7+J733ve7jlllsWu2pEREREPadrAdvu3btfMgdt06ZNuPnmm1uvb7nlFtx6661HDcy2bt2Kn/70p0gkEr7+PQ6J9i926/c3tl//Ytv1N7Zff1rokGjXFh1s374d27dvP+Jn9Xodd9xxB17/+tcDAN74xjfi+uuvh23b+MpXvoL3vOc9kCSpVf7F/09ERES0Ui3qHDZZlvHxj38cjz/+OIBmL9wZZ5wBURRx++2348c//jEA4NZbb8Wpp56KaDS6mNUjIiIi6kmLPodtPq2HZVkYHR3FJz7xCYyNjeHpp5/GRz7yEZTLZaTTaezatQurVq3yfVwOifYvduv3N7Zf/2Lb9Te2X39a6JDokiw66AYGbP2LF53+xvbrX2y7/sb26099k9aDiIiIiIJhwEZERETU4xiwEREREfU4BmxEREREPY4BGxEREVGPY8BGRERE1OMYsBERERH1OAZsRERERD2OARsRERFRj2PARkRERNTjGLARERER9TgGbEREREQ9jgEbERERUY9jwEZERETU4xiwEREREfU4BmxEREREPY4BGxEREVGPY8BGRERE1OMYsBERERH1OAZsRERERD1u2QRsWt1sW6amG5gpaqjpxiLUiIiIiKgz5KWuQKccztcwNhhFJHz0t6TVTRycqUKEgNlyHetHE65lafGJorDUVaCXge3Xv9h2/Y3t138W2maC4zhOh+tCRERERB20bIZEiYiIiJYrBmxEREREPY4BGxEREVGPY8BGRERE1OMYsBERERH1OAZsRERERD2OARsRERFRj2PARkRERNTjGLARERER9bi+D9i+//3v48ILL8QFF1yAf/u3f1vq6pAPlUoFF110EQ4ePAgAuOeee7Bz505ccMEF+NznPrfEtSMvX/ziF7Fjxw7s2LEDu3btAsD26xf/8A//gAsvvBA7duzA1772NQBsu350/fXX49prrwXA9usnl19+OXbs2IGLL74YF198MR555JHg7ef0scOHDzvnnXeek8/nnWq16uzcudN5+umnl7pa5OHhhx92LrroIuekk05yDhw44Gia5mzbts3Zv3+/YxiGc8UVVzh33XXXUleTjuKXv/yl87a3vc2p1+tOo9Fw3v72tzvf//732X594Ne//rVz6aWXOoZhOJqmOeedd57z5JNPsu36zD333OOcddZZzt/8zd/w2tlHbNt2zjnnHMcwjNbPFtJ+fd3Dds899+AP/uAPkEqlEI1G8YY3vAE/+tGPlrpa5OHb3/42Pvaxj2FkZAQA8Oijj2L9+vVYu3YtZFnGzp072YY9KpPJ4Nprr0UoFIKiKDjmmGOwd+9etl8feNWrXoV/+Zd/gSzLyOVysCwLpVKJbddHCoUCPve5z+HKK68EwGtnP3nuuecAAFdccQXe+MY34utf//qC2q+vA7bp6WlkMpnW65GREUxNTS1hjaidT33qU9i6dWvrNduwfxx77LE47bTTAAB79+7F7t27IQgC269PKIqCz3/+89ixYwfOPvtsfvf6zEc/+lFcc801SCaTAHjt7CelUglnn302brrpJtx888245ZZbcOjQocDt19cBm23bEASh9dpxnCNeU+9jG/afp59+GldccQX++3//71i7di3br4984AMfwL333ovJyUns3buXbdcnvvOd72DVqlU4++yzWz/jtbN/nH766di1axcSiQTS6TTe/OY34/Of/3zg9pO7XdFuGhsbw/333996nc1mW0Nt1B/GxsaQzWZbr9mGve2BBx7ABz7wAXz4wx/Gjh07cN9997H9+sCzzz6LRqOBE044AZFIBBdccAF+9KMfQZKkVhm2Xe+67bbbkM1mcfHFF6NYLKJWq2FiYoLt1yfuv/9+GIbRCrgdx8H4+Hjga2df97C9+tWvxr333ovZ2Vlomoaf/OQn+MM//MOlrhYFcOqpp+L555/Hvn37YFkWfvCDH7ANe9Tk5CT+8i//EjfccAN27NgBgO3XLw4ePIi/+7u/Q6PRQKPRwJ133olLL72Ubdcnvva1r+EHP/gBvve97+EDH/gAXve61+Gf/umf2H59olwuY9euXajX66hUKvjud7+LD37wg4Hbr6972EZHR3HNNdfg7W9/OwzDwJvf/GaccsopS10tCiAcDuMzn/kMrrrqKtTrdWzbtg1//Md/vNTVoqP46le/inq9js985jOtn1166aVsvz6wbds2PProo3jTm94ESZJwwQUXYMeOHUin02y7PsVrZ/8477zz8Mgjj+BNb3oTbNvGf/kv/wWnn3564PYTHMdxFqnORERERLQAfT0kSkRERLQSMGAjIiIi6nEM2IiIiIh6HAM2IiIioh7HgI2IiIioxzFgIyIiIupxDNiIaEV5+OGHcfnll2Pnzp246KKL8K53vQtPP/00gObmzLOzs0tcQyKil+rrxLlEREE0Gg28973vxT//8z/jpJNOAgB873vfw7vf/W7ceeed+OUvf7nENSQiOjoGbES0YmiahnK5jFqt1vrZG9/4RsTjcfzd3/0dAOAd73gH/s//+T8QRRGf+MQnMDk5CcMwsGPHDlx55ZU4ePAgLr/8crz2ta/FI488Asdx8NGPfhRbt25dqrdFRCsAdzogohXla1/7Gm688UYMDw/jjDPOwFlnnYUdO3YgEonguOOOw7333ot0Oo23v/3t+Iu/+Au87nWvQ71ex7vf/W5ceumlOOWUU/BHf/RHuOGGG7Bz50787Gc/w9/+7d/ipz/9KRRFWeq3R0TLFAM2IlpxKpUKfvOb3+A3v/kN7rzzTgDAv//7v2Pr1q249957oaoqzjzzTGzZsqX1O7VaDdu3b8db3/pW/Mmf/Anuu+++1t9t27YNN910E04++eRFfy9EtDJwSJSIVowHHngADz30EN71rnfhvPPOw3nnnYcPfvCDuOiii46Yv2bbNhzHwS233IJIJAIAmJ2dRTgcRj6fhyRJRxzXtu2X/IyIqJO4SpSIVox0Oo0vfelLuP/++1s/y2azqFQq2LJlCyRJgmmaiMfjOO200/C1r30NAFAqlXDZZZe1euNmZ2dx9913AwD+8z//E4qiHNEbR0TUaRwSJaIV5Ve/+hW+8IUv4PDhwwiHw0gkEvjLv/xL/OEf/iE++MEP4re//S2+8IUvIBqN4u///u9x6NAhNBoNXHTRRbjqqqtw8OBBXHjhhTj//PPx9NNPQ1VVfPzjH8cJJ5yw1G+NiJYxBmxERAEcPHgQO3fuxEMPPbTUVSGiFYRDokREREQ9jj1sRERERD2OPWxEREREPY4BGxEREVGPY8BGRERE1OMYsBERERH1OAZsRERERD3u/wfBlY7oY1xDewAAAABJRU5ErkJggg==\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"iVBORw0KGgoAAAANSUhEUgAAAmkAAAE/CAYAAAAdTlSlAAAAOXRFWHRTb2Z0d2FyZQBNYXRwbG90bGliIHZlcnNpb24zLjMuMiwgaHR0cHM6Ly9tYXRwbG90bGliLm9yZy8vihELAAAACXBIWXMAAAsTAAALEwEAmpwYAABYGklEQVR4nO3de5gcdZ0v/ndVd3VX32Z6pueWTC6EhCAGYmDRRERY9AgLIaIuu2bZR1xZ4+Hobs6Dz+pxkeMq7j5ejmc56ro+6rq4F3AVF8T4U2TFu4kgqARCIARyncn09PT9Vt1VXfX7ozNDoqnq/k6mZqpm3q/n4QmV+abm2/2trvr09/L5SpZlWSAiIiIiT5EXugJERERE9LsYpBERERF5EIM0IiIiIg9ikEZERETkQQzSiIiIiDyIQRoRERGRBwUXugJnI5+vwjSZQcSPUqk4stnKQleDZoFt529sP//qtu3qDQNH0mXIkGDCwurhBCJhXz/ufU+WJfT1xYT/na9bzTQtBmk+xrbzL7adv7H9/KubtgsrAawYiKHWMBANBxFWAmxzn/J1kEZERES/K6oqiKrKQleDzhLnpBERERF5EIM0IiIiIg9ikEZERETkQQzSiIiIiDyIQRoRERGRBzFIIyIiIvIgBmlEREREHsQgjYiIiMiDGKQREREReRB3HCAiIqKu1DR9Zrsp7mjgPgZpRERE1FFN03FwrAhZkmBaFtaN9jJQc5mrw527du3Cddddh6uvvhr33HPP7/z8H/7hH3DVVVfhhhtuwA033HDGMkRERLTwag0DsiQhHlUgSxJqDWOhq7ToudaTlk6ncdddd+H+++9HKBTC9u3bsXnzZqxbt26mzNNPP42///u/x8UXX+xWNYiIiGgORMNBmJaFSk2HaVmIhjkY5zbXetJ2796NLVu2IJlMIhqN4pprrsFDDz10Wpmnn34aX/jCF7Bt2zbceeedaDQablWHiIiIzkJUVbButBcjqSiHOueJa2Hw5OQkBgcHZ46Hhoawd+/emeNqtYoLLrgA73vf+7B69Wp84AMfwD/+4z/itttu6/p3pFLxOa0zza/BwcRCV4FmiW3nb2w//2LbLS2uBWmmaUKSpJljy7JOO47FYvjSl740c3zLLbfg9ttvFwrSstkKTNOamwrTvBocTCCTKS90NWgW2Hb+xvbzL7adf8myNKuOJdeGO0dGRpDJZGaOM5kMhoaGZo7Hx8fxjW98Y+bYsiwEgxzfJiIiIgJcDNIuu+wy7NmzB7lcDvV6HQ8//DCuuOKKmZ+rqor/83/+D44dOwbLsnDPPffgDW94g1vVISIiIvIV14K04eFh3Hbbbbj55pvxpje9Cddffz02btyIHTt24KmnnkJ/fz/uvPNO/I//8T/wB3/wB7AsC+94xzvcqg4RERGRr0iWZfl2UhfnpPkX51b4F9vO39h+/sW28y/PzUkjIiIiotljkEZERETkQQzSiIiIiDyIQRoRERGRBzFIIyIiIvIgBmlEREREHsQgjYiIiMiDGKQREREReRCDNCIiIiIPYpBGRERE5EEM0oiIiIg8iEEaERERkQcFF7oCREREtHBqmo5aw0A0HERUVRZVWS/VYzYYpBERES1RNU3HwbEiZEmCaVlYN9prG3D4rayX6jFbHO4kIiJaomoNA7IkIR5VIEsSag1j0ZT1Uj1mi0EaERHREhUNB2FaFio1HaZlIRq2H2DzW1kv1WO2JMuyLFfOPA+y2QpM07fVX9IGBxPIZMoLXQ2aBbadv7H9/MuttvPCnK3FPidNliWkUvGOdf1tnJNGRES0hEVVpev5VH4r66V6zAaHO4mIiIg8iEEaERERkQcxSCMiIiLyIAZpRERERB7EII2IiIjIg7i6k4iIiBbUfGyx5EcM0oiIiGjBzNcWS37E4U4iIiJaMPO1xZIfsSeNiIiWHA6vecd8bbHkR3wniIhoSeHwmrdEVQXrRnsZNJ8BhzuJiGhJ4fCa90RVBQO9EQZov4VBGhERLSkcXiO/4JVJRERLCofXyC8YpBER0ZITVRUGZ+R5HO4kIiIi8iAGaUREREQexCCNiIiIyIMYpBERERF5EIM0IiIiIg/i6k4iIiIiQfOxtRiDNCIiIiIB87W1GIc7iYiIiATM19ZiDNKIiIiIBMzX1mIc7iQiIiISMF9bi7nak7Zr1y5cd911uPrqq3HPPffYlvvRj36E173udW5WhYiIiMhRTdMxVayjpukdy0ZVBQO9EVe3F3OtJy2dTuOuu+7C/fffj1AohO3bt2Pz5s1Yt27daeWmpqbwiU98wq1qEBEREXU0X4sBRLjWk7Z7925s2bIFyWQS0WgU11xzDR566KHfKXfHHXfgL/7iL9yqBhEREVFH87UYQIRrPWmTk5MYHBycOR4aGsLevXtPK/Ov//qvePnLX45XvOIVs/odqVT8rOpIC2twMLHQVaBZYtv5G9vPv9h2QKWuo1bXEY0oiEc693R1Wz4SVzFV0VHWWlDCClaO9nV1fje5FqSZpglJkmaOLcs67fjAgQN4+OGH8ZWvfAUTExOz+h3ZbAWmaZ11XWn+DQ4mkMmUF7oaNAtsO39j+/kX2058SFKkfE3TUSrVYRgtBIMBZKfKqM/RcKcsS7PqWHJtuHNkZASZTGbmOJPJYGhoaOb4oYceQiaTwR/+4R/iXe96FyYnJ3HTTTe5VR0iIiLyOdEhSZHy0ys1lw/GEQ0HPTHc6VqQdtlll2HPnj3I5XKo1+t4+OGHccUVV8z8fOfOnfje976HBx98EF/84hcxNDSEe++9163qEBERkc9NB0/jmcpMUNWpfL7SwIEjOeQrDcfyouc+li7j8ecmcCztXu+ma8Odw8PDuO2223DzzTdD13XceOON2LhxI3bs2IGdO3fioosucutXExERkY+I7IMpwYIltf/sfF4D6VwVLdNCqa6jpvU5nr/bcx9Ll/HAz16AYVgIBiW8+fK1WDk89/MFXU1mu23bNmzbtu20v/vSl770O+VWrFiBH/zgB25WhYiIiDxIaN5Yw0AkrGAwqqBSOxnYOQRd+YoGVQmiv1dFrqghX9EwkIyc9bmfHytgqqAhHgmhUGng+bGCK0Eat4UiIiKirogke+22rMi8MdHtmPriKlqWhVxRQ8uy0BdX5+TcoaAMywJaLROW1T52A7eFIiIioo5EV0p2W1YkOBLdjmkgGcFrLlyGfEVDX1y17UUTPffLVvXjxfEy6loTo4NxvGxVv2M9ZotBGhEREXV0ao9Xp+FAkbKigVdUVYR2AhhIRhyDs9mceyAZwXVbVncV/J0NBmlERETUkVCPl+CwpAiRRQai5UXKigR/s8UgjYiIiDoS6fESKevWMKrb554PXDhAREREXYmqCgZ6I10FL92WrTUMNHUTLdNEUzc7Jpx1M5ntktm7k4iIiKgjCxibqiAgSWhZFs4ZsU9lMZ1wtlRtIBgMdJXM1q0hWtFh19lgkEZEREQLRwJGB2IIBmUYhglInYp3n8zWC0O0Z4NBGhEREc25bnuaouEgtKaBaklHTFUce7BqDQOSJCOuBqAbVsdktm6pNQyUqzpMy4Qsya7Vg0EaERGRA7dWBy5mYhP2DUzk6jBNE+WagZrmEPAIDI2K16P7snXNwL7D2Zmyq4bjQK9jVWaFQRoREZENv68OXCgiedLaWzcF0N8b67h1k+jQqFu53TTdwECving0hEqtCU13Z5EBV3cSERHZ8PvqwIUiMglfdOumkBJAUJYRUhZu4UBfXEUgIKPZbCEQkB3rfDbYk0ZERGTDKwlc/UZkEr5bWzeJlnerzmdj6V5BREREHbj1kF8KRLZvcmPrptmUd6vOs8UgjYiIyIFbD3miTjgnjYiIiMiDGKQREREReRCDNCIiIiIPYpBGRERE5EEM0oiIiIg8iKs7iYiIiATNxxZgDNKIiDyG+z8Sedt8bQHG4U4iIg+ZvvlPZGs4OFZETdMXukpE9FvmawswBmlERB7C/R+JvG++tgDjcCcRkYdw/0ci75uvLcD46Sci8hDu/0jkD/OxBRiDNCIij+H+j0QLw2uLdhikERER0ZI3Xys2RTBIIyKiJUekx0Sk7FShjnxFQ19cxUAy4lj2WLqMdKGK4WQMK4cTHeswmauhruldBQ5eqLPIeQ8czWMsW8ZoKoH1q/rm7LxA9+9FrWGgqbcQDMowDLP9bxikERERzR+RHhORslOFOn7+9AkEJAkty8JrLlxmG0QcS5fx3UePnDzvFK7dvNo26JmuQ1/SQL5Q7djD44U6i5z3wNE8Hvjpi5AlCY9ZGbz5tefaBmoi5xV9L2ABY1PVmXOfM9Jje975whQcRES0pIikOREpm69oCEgS+ntVBCQJ+YpmWzZdqEKWJAz1RSBLEtKFasc69MRCXaVl8UKdRc47li1DliQM97fPO5Ytz8l5AcGUNhIwOhDHyuE4RgfigOR46nnBII2IiJYUkTQnImX74ipaloVcUUPLstAXV23LDidjMC0Lk/k6TMvCcDLWsQ6larOrtCxeqLPIeUdTCZiWhXSufd7RlP0wqsh5AfG2DikyArKMkCJ7Iv2NZFmWtdCVmK1stgLT9G31l7TBwQQyGftvS+RdbDt/Y/u1+XFOWiSmol7VOCfNpTlpomVFyLKEVCou/O8YpNGC4IPCv9h2/sb28y+2nX/NNkhb+L48IiIioi6J9na51ZM2HznVGKQRERGRL4jmMnNrJe985VTjwgEiIqIlrKbpmCrWUdP0ha5KR9O5zAzTRFNvzelKV7fKng32pBERES1RXsyy70gwl5lbK3lFyp4Nx7O+7nWvgyTZJwp55JFH5rxCRETkL17b75C6d2qPUKWmd8yyv+Bztk7mMlOCEnTD6pjLLKoqWDfa21U93Cp7NhyDtM985jMAgHvvvReKouCtb30rAoEA7r//fui697tFiYjIXb7riaHTiPQIeWHO1nQuM1mSICnd9WBFVaXr3+1W2dlyfHUXXnghAOD555/HfffdN/P3f/3Xf40bb7zR1YoREZH3ifbEkLeI9AiJtLVbPXRRVcHyVGwmT1o315pIXjXRHGxu62oQtVQqIZfLob+/HwCQTqdRqVRcrRgREXnffM3NIfd02yPk1pwt0R668Wx7e6rxbBVR1TmoE9nrU3Rf0PnQ1afp7W9/O7Zt24bLL78cpmli9+7deN/73tfx3+3atQuf//znYRgG3v72t+NP//RPT/v5f/3Xf+Ezn/kMTNPERRddhDvvvBOhUGh2r4SIiObdfM3NoYUn0ovllR66U/f6zBU15CuabeAlUna+dBWk3XTTTbjkkkuwZ88eSJKEHTt2YP369Y7/Jp1O46677sL999+PUCiE7du3Y/PmzVi3bh0AoFar4c4778QDDzyAgYEB3HbbbXjggQfw1re+9exfFRERzZv5mJuz1NU0HZO5GuqavmAJXEV7sRa6hw4Q2+tTdF/Q+dB1v/SLL76I5557DoZhIJlMdgzSdu/ejS1btiCZTAIArrnmGjz00EP4i7/4CwBANBrFD37wAyiKgnq9jmw2i54e56W0RERES830cGBf0kC+UF24BK4uzT90c1XlQDKCS84bnNlv1KlnTKQsILbf6Gx1FaR9+ctfxre+9S28+c1vhmVZuPvuuzE+Po53v/vdtv9mcnISg4ODM8dDQ0PYu3fvaWUURcGPf/xjvP/978fQ0BAuv/xyocrPZh8s8o7BQefNecm72Hb+xvbzl8lcDX1JAz2x9nSgSEzFYH+0q/KlatOxvEjZSFxFVbcgSxISPUGsHO1DPOLtHtRKXUd1rIRwOIyqYSESV23rLFJ234tT+P9+cQQBWcJvns8h2RfFhnMH5rz+XQVp3/zmN/HVr34V8Xg7KLrxxhvxx3/8x45Bmmmap+VYsyzrjDnXrrzySjz66KP4+7//e3z4wx/G//2//7frynODdf/iRsH+xbbzN7af/9Q1HflCFQCQL1SRigWRabU6li8WazAty7G8SFkAGIwrJ3uxFNQrGuoV7exenMuOTZZx4PAUYmEF1YaOmCJh5dCZv6SIlN13MA3DMJHqjyCdq2PfwTSGEmHbesx2g/Wut4WaDtAAIJFIIBh0ju9GRkaQyWRmjjOZDIaGhmaOC4UCfvazn80cb9u2Dc8991y31SEiIloSpof4VgzFu8o3Nl1+JBXtWF6k7HT5gd6Iv+YgWoB18s+5KjuaSsBomTieqcBomRhNudM73VWQNjo6in/5l3+BruvQdR1f+cpXsHz5csd/c9lll2HPnj3I5XKo1+t4+OGHccUVV8z83LIsvO9978P4+DgA4KGHHsIll1xyFi+FiIhocYqqCob6o0KJVrsNpnwZeHUp1aNiJBVDNBzASCqGVI/9YgCRsiuG4th0XgqrhmLYdF4KK4bcmX4lWZbVMbZMp9P4q7/6K/zqV7+CZVnYtGkTPvWpT3UM1Hbt2oUvfOEL0HUdN954I3bs2IEdO3Zg586duOiii/D9738fn/70pyFJEtatW4ePfOQjSCS6j0Y53OlfHHLxL7adv7H9/IttNzturHSdKtYxka3NLKIYSUUx0Gu/0GC2w51dBWnTphPYnjr0uZAYpPkXbzb+xbbzN7aff7HtvEN02ytX56RNTU1hx44d2LJlC175ylfi5ptvRjqdFv5lRERERH4nOpdvtroK0j760Y/iFa94BXbv3o3du3fj0ksvxYc//GFXKkRERERLS03TMVWso6bpHcseS5fx+HMTOJae+15FkXrUNAP5soaaZsx5PaZ1lYLj8OHD+PSnPz1zvHPnTmzdutW1ShER0cISmccjsim1aALQvQczODJZwuqhHmxcN+hYVuTcx9LlmaSlK4fnbmWeyPtGbSJDh8fSZXzjRy+goRsIK0Hc+PtrO7Zft9dnTdOx71AWzZaJUEDGhjUp23rM1z6fXQVphmGg0WggHG7nAKnX62fMeUZERP4n8tAUeVgdOJrHAz99EbIk4TErgze/9lzHYGrvwQzu+9ELkCTgsWfaKZ3sAjWRcx9Ll/HdR4+cfH1TuHbz6jkJ1ETnKVGbyE4Gzxyaam9JFQ4iW2rgmUNTjm0ncn1mSxpO5GqIhRVkG1p7padNPeZrn8+uhjuvu+46/Nmf/Rnuu+8+fOMb38Att9yCa665Zs4rQ0REC+/Uh6YsSag17IdzTn1YBSQJeYfkpmPZMmRJwnB/BLIkYSzrPFx1ZLIESQKG+6KQpPbxXJw7XWjvPznU1y6bPpko9myJvG/0EpH9OC0JACxYsNp/dugvErk+27+guzxpfXEVmm7geLoMTTdc2+ezq56097znPRgZGcFPf/pTmKaJt7zlLbjxxhtdqRARES0skYemyKbUo6kEHrMySOfqMC2rYwLQ1UM9eOyZDNL5GiyrfTwX5x5OxmBaU5jMt8sOJ2OO9eiW6Obf1CayH+eGcwbwzOE8ms0WkvEQNpzjvBWTyPU5nSfNMFroiYUc86RF1SBG+mOoaDriqoKo6k5bd52Co9VqoVKp4NTi05unLxSm4PAvLiX3L7adv3Xbfot9Tppbm2O7OSfNrc+eW23tRn4yQOyacKvOnsqTds899+ATn/gEdL292mF6H879+/cL/8K5xCDNv/ig9y+2nb+x/fw7d8yNtnNr/qHIed2qg5vmK09aV/1z//zP/4yvfe1ruOCCC4R/ARERkZeITFRf7GoNA03dhBKUoBuW43shMlle5D0WKTtfE/Y7ERmiPRtdBWm9vb0M0IiIaFHg3LFTWMDYVGWmZ+qcEfu5fCLzu0TeY7fmQLotqiquB/eOV2ahUAAAbNq0CV/5yldw/fXXIxh86Z8s9Jw0IiIiUfPVC+ILEjA6EEMwKMMwTMBhteRAMoLXXLisq/ldIu+xSFmROiwGjkHali1bIEnSzGKBj3/84zM/88KcNCIiotmYj14QP4iGgwgpAciSBFmROvYqDiQjXQdGIu+xWNkgIKld94CKLBxwa2HEbDm+wmeffdaVX0pEREQLz2+9iqIT9kUWGri1MOJsOAZpDz74IG644QbcfffdZ/z5O97xjjmvEBEREc0fP/Uqii76EFlo4NbCiLPhGKQdOXIEAHDgwIE5/8VEREREIkQXfUzvDHBssoyALDkuNHBrYcTZ6DqZrRcxT5p/MVeTf7Ht/I3t519suzbRJLlPHMigXm8iEgnh99YPdhwedWNOmit50rZt2+b4j3ft2iX8C4mIiIhmS2R4ttYw0BcPY+VQvKthSZFFCQueguN//+//7eovJyIiInJrpaTIsKQXd6JwDNJe9apXzfz/3r178cwzz+Atb3kL9u3bh4svvtj1yhEREdHiVtN0/OpAZmaz8ks6DEmKiKoKlqdiM0OYTucVXQwwHyk45G4K3X///fjrv/5r/NM//RPK5TLe/e534+tf/7orFSIiIqKlYyxTwf4jOWRydew/ksNYpjJn565pOsazVTSaJsazVdQ03bbsbHrdJrI1HBwrOp73bHQVpP3bv/0bvva1ryEejyOVSuH+++/Hv/zLv7hSISIiIlo6NN2AZEkIh2RIlgRNN+bs3Kf2jsmShFrD/tzTOeNGUtGOQ50i5z0bXa0ZlWUZ8fhLqxKWLVuGQCDgSoWIiIjIm0RXVnZTdll/HKFQFvmShogawrJ+8VWQdkRTZXS7GGC+UnB0ddZkMon9+/dDktqben3rW99Cb2+vKxUiIiLyEpHAxK0UDjVNx2SuhrqmdxVEuDFfSmRivegkfCUowQwHoQQdNg+dBbd2VJivnRq6CtJuv/12/M//+T9x9OhRXH755QiHw/jc5z7nSoWIiIi8QiTYcGtboemyfUkD+UK181CcS6sURSbWi5TNVzQkIiGsHumc6X823EqVseApOKatXbsWDz74IA4fPoxWq4U1a9bM9KoREREtVqLBhhvbCk2X7YmFUCzWOq86dGnLIpEhPpGyIpn+l5quFg7ce++9CAQCWLt2LdavX48jR47gj/7oj9yuGxER0YJyK9iYTcBTqja7m1fl0nwpkYn1ImUHkhG85sJlOH910rH3cSnqquW++tWvore3F1u3bsXdd9+Nz3/+83j3u9/tdt2IiIgWlMjco+lgo5s5aSLnnS4bialIxTrPf3JzvpTIEJ9I2YFkhMHZGXS1d2cmk8E73vEORKNRyLKMj33sY1izZs181M8R9+70L+5B519sO39j+/mX39puPpK9+sVs9+50HO4sFAooFApQFAWf+tSnMDExgVtvvRV9fX0oFAqzrSsREREtYvOV7HWxcxzu3LJlCyRJwqmdbbfeeisAQJIk7N+/393aERHRoiLauyKS0oK8w63FC0uNY5D27LPPzlc9iIjIp7oNvERTQ4iktCBvma9kr4ud47v24IMP4oYbbsDdd999xp+/4x3vcKVSRETkDzVNx75DWTRbJkIBGRvWpOYkdxYgltKCvGW+kr0udo5B2pEjRwAABw4c+J2fVatVBmlEREtctqThRK6GWFhBtqFhJBWzfSCL9q4wf5a/zUey18XO8ROyc+dOAMDHPvax3/nZJZdc4k6NiIjIXyzAOvmnE9HeFZGUFkSL0awHibvI3EFERItcqkfFSCoGw2ihJxZCqse5t0u0d4X5s2gpm3WQxm2hiIgoqio4d1nPTG8Xh7eI5k5X20IRERGdSU3TMZ6totE0MZ6tMh8W0Rxy7Em7+OKLz9hjZlkWNE1zrVJEROQPzIc1e8zI7z1eaxPHIO3b3/72fNWDiIh8iPmwTieSM67b1CVAO2dcptKEZLQ4R88lonn85oPjp2l0dHS+6kFERD7EfFgvEXnIi6QumU7q2xNXUapoTOrrEi/2CnNOGhERnZWoqmCgN7LgD7SFdupDXpYk1BqG8z/oMnXJdFLfwb4oApKEfIXTjdzgxV5hV4O0Xbt24brrrsPVV1+Ne+6553d+/v3vfx833HAD3vjGN+Ld7343isWim9UhIqIu1TQdU8U6FwKg+/ciGg6iUGng2aN5FCoNx4d8qkeFEpQxkS1DCcqOqUv64irGsxU88ssjGM9Wukrqu/dgBrt2v4C9BzMdy04V6nj+eB5Thbovyrp1bU73Co+kop4Y6gTOIgVHJ+l0GnfddRfuv/9+hEIhbN++HZs3b8a6desAAJVKBR/+8Ifxn//5nxgeHsanP/1pfPazn8Udd9zhVpWIiKgLXpyb0w03Jn2LvBc1zcBErgqzZaFSa6Km9dkPdxY1HDpRgmlaKNVKuNBhTtr4VAWHxsuQJMCy2sdOw517D2Zw349egCQBjz3TDtI2rhs8Y1mR/VG9UNbta9NruyS41pO2e/dubNmyBclkEtFoFNdccw0eeuihmZ/ruo6/+Zu/wfDwMADg/PPPx4kTJ9yqDhERdUl42M4Dph/eE9kaDo4V56yXReS9yFc0qEoQK4YTUJWg47BkulBFKBjAquEEQsEA0oWqbdkjkyUoiow1o31QFBlHJkuOdT4yWQIsC8lYGLAsx/Kn7o/aaSjVC2X9eG2eDdeCtMnJSQwOvhS5Dw0NIZ1Ozxz39fXhDW94AwBA0zR88YtfxH/7b//NreoQEVGXvDg3pxO3Ht4i74XIXqPDyRhMy8Jkvg7TsjCcjNmWXT3UA8sC0tkKLKt97GQ4GUNdb+FEroa63nI8t0idvVDWj9fm2XDt1ZmmeVqONcuyzphzrVwu4z3veQ9e9rKX4c1vfrPQ70il4mddT1o4g4OJha4CzRLbzt+6ab/UQAK1uo5oREE84p3hHzuRuIqqbkGWJCR6glg52jdn9e72vRgcTKA/FUe2WEeqN4Lh/qhj2b7+GManKlg+EMea5b22ZV8/mEBvMooXjhewdkUSl14w4ljfV14UQKnRQr5YR19vBK+8aBSDNnURrfNClwXEr81KXffVtXwq14K0kZERPP744zPHmUwGQ0NDp5WZnJzEn//5n2PLli24/fbbhX9HNluBaXIPUT8aHEwgkykvdDVoFth2/ibSfhKAeqWFuk9WEw7GlZNz0hTUK5pjvUXmr02XrYeDqHcoKwMYjIeAVqvj+xxXZKxf1u4V61R29UAMl14wgkym3LFsXdMx1BPGSK8K07JQr2rItFpzUmcvlAW6vza9Mr9SlqVZdSy5Ntx52WWXYc+ePcjlcqjX63j44YdxxRVXzPy81Wrh1ltvxbXXXosPfvCD3AuUiIjOSrepQETmr7k1181NXlyluFD8PofNtZ604eFh3Hbbbbj55puh6zpuvPFGbNy4ETt27MDOnTsxMTGBZ555Bq1WC9/73vcAABdeeCH+7u/+zq0qERERCSUt9WKC0254bZXiQvH7HDbJsizfjhdyuNO/OGTmX2w7f2P7iabV8MZwGcC2my0v7Mc52+FOf4WUREREZ0lkKytue+V/fu5VZJBGRESe5VYviMiD288PefI3BmlERDRvpgp15Csa+uJqx03Ca5qO3fsmUC5rSCRUXLZhxDFY8sKwFnmPn68LBmlEREtETdMxmauhrukL8rAS2f4HAA6OFfDEs5NQlQC0sRKGkio2rj3z9kZemjvmBtG283NgMpf8fl24usE6ERF5w/TD6vhkZcFSSYhs/wMA5ZoOSQKiEQWS1D624/dUC05E286PaUPc4vfrgkEaEdESMP2w6omFFuxhJbL9DwCsGkogHlHQ0A3EIwpWDdnvlOD3VAtORNvO74HJXPL7deGv2hIR0Wm6HdaKhoOoNQwcTZdQP1neiejcsW7qMJCM4JLzBpEuVDGcjHU878rhBLZdtmam/MphhyBtEa/CnA40StVmV4GG3wOTueT362LpthwRkc+Jzrdp6gb0igXLYYsgoB2g/eg3YzBNE7Is4/c3jdoGVKI5x/KVBlRFQb7SQKpX7fjQXDmccAzOTrVYV2FOBxqRmIpUrHOg4ffAZK75+brgcCcRkU+JDGtlSxpypQaCgQBypQayJfv5YCdyVeTLGgAJ+bKGE7nqnNSBw3CzF1UVDPVHhdKGdLNFFnkbgzQiIp8SHtaSfutPG2ElAMsCGs0WLKt9PBd14DAckRh+QoiIfEpkWCvVo2JZfxSqGsSy/ihSPfaT9lcMxvHyc/pQ1XTEVAUrBu23s3E7e79IKgmmnaDFhkEaEZGPdTvfJqoq2LAmhUhMRb2qdQymLlk/5ErAU9OMduoNq/N8tJqmY9+hLJotE6GAjA1rUo7z3Z4+lINhtBAMBnDhmn4mviXfY5BGRLRERFUFg/1RZDosHJgu221PV7cLB0ST2WZLGk7kaoiFFWQbGkZSMdtzZ0saJrJVRFUFtaKGZSn7+Vt+T3BKSwfnpBER0ayJLAYQTWYLALAA6+SfHUknp9t1mHPHBQzkF+xJIyKiWRNZDCCazDbVo2IkFYNhtNATCznOo5uec9dsmeiJKY5luYCB/IJXJhGRx/hpvpTIYoCBZASvuXBZ10lyo6qCC9f0d70oYcOalGsLGIgWAoM0IiIP8eN8KZFkoQPJSMfgbLbndqusF4husE6LA+ekERF5COdL0W8T3WCdFg/2pBERechiny/l5lCuWznVFrpsrWGgXGuiJcmo1Zrtf9Ph3CJ7r7pVls7e4vr0nyU/zQMhosVpMc+XcnMoV3QPUT+VrWsG9h3KIRYJoVpvYtVQAui1fy9EUp24VZbmBoc7T5r+wExka+xOJqIFtVj3XXRzKNetPUS9UFbTDQz0qlgz2ouBXhWa7vy+iaQ6casszQ0GaSdxHggRkbui4SDqDR1jUxXUG/qcDuW6tYeoF8r2xVUEAjIazRYCAblj6hKRVCdulaW5IVmW1U2KQE/KZiswzbmpvh9XVPnZ4GACmUx5oatBs8C287eFbD/RrZtmc36/zDMTLTtVqMMKBiAZra6GGDknzVtkWUIqZb8Hrh3OSTtpMc8DISLygun7a7wvgkpN72oCvAgvpOBwqw4DyYhQgC2S6sStsnT2GKSdwm95c4ioMy4I8g4vrVztemWlwCbvRHONQRoRLVqcxuAtXhmxELkuRDZ5J5prDNKIaNE6dUGQG8NrXiA6rylTaXY9r8kNXhixEL4uRDZ5J5pDDNKIaNHy0vCaG0R6hKZzXPXEVZQq2pLOcSVyXYhs8k401xbXHYuI6BReGV4TdSxdRrpQxXAyhpXDCdtytYaBqWIdWtOAGgpi+YD9UFy+okFrtBBRTWiNFvIVzTFIE+2h63bFX7evbdregxkcmSxh9VAPNq4bdCzbbZ1FrguRTd5F6jCbsiJ7dx44msdYtozRVALrV/XNWT1ofjFII6JFzQvDayKOpcv47qNHTvaOTeHazattg5lcUcMv90/O9KStGIhjoPfMQZJlAocnSkjna6g3DFx83oBtHWbTQ9dNFnqR1wa0A7T7fvQCJAl47JkMANgGaqLzD91Yhen27gR9SQP5QrXjaztwNI8HfvoiZEnCY1YGb37tubaBGudtehuT2RIReUi6UIUsSRjqi0CWJKQLVduypXoDvbEQVg7F0RsLoVRv2JaVZOCckQRedk4K54wkIDnc/UWSe4tkoRd5bQBwZLIESQKG+6KQpPbxXNQZaAcnU8X6nO4u4/buBD2xUFevbSxbhmVZ6I2HYFkWxrL2aTtqDQNN3UTLNNHUTSZy9xj2pBERneTWUJXIEN9wMoZCeRzj2QqiIQXDyZhj2WL1OMazZcTUkGPZvriKhm5ibKqCwMljO9FwEE+9MIUTuQqW9cdx7vJzHc9brjeRLdYRCgUczzucjKFpZHBssgxJkh3rCwCrh3rw2DMZpPM1WFb72KnO3c4zE02q2+1wbjQcRKHSwPGpCuKqgnOXO9dXpGw6X8PxXA2KBMeyAJBKRFCs6chXmu0kqgmHIWgLODxRhNmyIAcknDPifH26NQxOZ8YgjYgI7g1ViQ7x1RsGqo0mdMOCZTVRd+rFKmvIlZpomS00mk3ky5rtuesNA4WKBlmWYZqm43mfeG4Su/dNwLIsHDpRwYqhOF77ilHb8oAEU5IASA5lgFSvivNX9aJYaaA3Hkaq13kS/vTQZjdz0kTmmWVLGiayVURVBbWihmWp6JwM59Y0AxO5KsyWhUqtiZrW53ANdV82W9Tw3NE8QkoQTd3A+hVJx9cXCQeRiitoGiZCQRkRh4C13jQASAiHA9AN8+Txmbk1DE72ONxJRAT3hqpEh/jGsmVEwyGsX5lENBxyHKo6MllCOCRjzbJehEOy43BgulBFNKzggjUDiIYVx3q8MJ4/WecoZEnCC+N527L5ioZERMH5K5NIRBTH4c5aw8BwXwyXnD+M4b5YV0Nr61Yk8eoNy7FuRbJjWRHNVgu1uo5mq+VYTnQDclUJYsVwAqoSnLOy6UIVoWAAa0aTCAUDHa8hTTeQjEewbkUSyXik44bsIUVGXFUQUpxDAreGwckegzQiIri3OfZwMgbTsjCZr8O0rI5DfKOpBEzLQjrXLj+asu91Wz3UA8tCV8OB0/WYmKp0rMfa5X2w0O7BsU4e2xHZdFs0Jcp0z81EtoaDY0XH+WMiZSOhIGABdd0ArJPHc/D63Cor0nYAsKw/jmRPCLCAZE8Iy/rt94xM9ahY1h+FqgawrD/qmGJEdFN4r2zG7sb8w/nCDdZpQXCTbv9azG3nhTlpgFj6BJEUFcfSZdRNCxFZ6liPnz45hhfG81i7vK/DUKfY3COhOU3FOiaytZmksyOpqO3qVdGyh0+UEAzKMAwT5yzrsS0r+vrcKivSdl6psxfmpHll9epsN1hnkEYLYjE/6Bc7tp2/+an93E5psdAPblFutN1if99Egnc3zTZI48IBIiLyJNGks26UXexEtsjy4zZrft91xF+1JSKiJcWNpLOiZRczt+ZieoXfA3Lvv8NERETkiqXQA+nngJxBGhER0RLGHkjvYgoOIiIiIg9yNUjbtWsXrrvuOlx99dW45557bMu9//3vx/333+9mVYiIiIh8xbUgLZ1O46677sK9996Lb37zm/ja176GgwcP/k6ZW2+9Fd/73vfcqgYRERGRL7kWpO3evRtbtmxBMplENBrFNddcg4ceeui0Mrt27cLrX/96XHvttW5Vg4iIZkEkS7ufM7oTeZlrCwcmJycxOPhS9uuhoSHs3bv3tDLvfOc7AQBPPPHErH7HbBLDkXcMDnbOmk3exLbzt07tV6nrODJVgyxJqOo6XjaQQDxy5sniImXp7PGzt7S4FqSZpglJkmaOLcs67XgucMcB//JT1nM6HdvO37ppv6liHeVSfSZp6bGxvOMWS92WpbPDz55/zXbHAdeGO0dGRpDJZGaOM5kMhoaG3Pp1RHQKDj/R2VjsCU6J/MK1IO2yyy7Dnj17kMvlUK/X8fDDD+OKK65w69cR0UnT++tNZGs4OFZkoEbCppOWjqSiHfdnFClLRGJcC9KGh4dx22234eabb8ab3vQmXH/99di4cSN27NiBp556yq1fS7Tknbq/nixJqDWMha4S+VBUVTDQG+kq6BIpS97jt553v9X3bEiWZfl2UhfnpPkX51a4Z7onTZYkmJY1570bbDt/Y/v5lxtt5/b9Yq75rb7TPDcnjYgWBoefaKlaSj0sc8VvPe9+q+/Z4gxPD6ppetcb2LpVlvyN++vRUuPHHhYv3JP9tvDDb/U9W4v71fmQyI3GrbJERH5zag9LpXYy+PHwPc4r9+TpnveFDha75bf6ni0Od3qMSFeuW2WJaHGqaTomc7VFORwo2sOy0EOjXron+23hh9/qezbYk+YxbuUnWmpdxER0uumem76kgXyhuuh600V6WLzQi8V7MnWDV4XHiNxo3CpLRIvPdM9NTyyEYrHm+eHA2eh2LmatYaCpm1CCEnTDWpD3gvdk6gaDNA8SmfTtVlk/4oILmk9+uy6me25K1SZ7bixgbKqCgCShZVk4Z2Rh9sNc7PdkOntL+FNKiwkXXNB88uN1Md1zE4mpSMX8EVi6RgJGB2IIBmUYhgnM7bbSRHOGCwdoUeCCC5pPfr0uoqqCof5od0OCizjnWDQcREgJICjLCCmBpd2rSJ7GK5MWBS64oPm02K8LP/YUinBzPphXhsG9Ug86O4vrzkJLFhdc0Hxa7NeF33KOzYYb88G8Etx6pR509hik0aLBBRc0nxbzdbHYewrd4pXg1iv1cMtS6iXkJ4/IJ5bSjYkW1mLvKXSLV4Jbr9TDDUutl3DxtBx1xIe8fy21G5MfTBXqyFc09MVVDCQjjmWPpctIF6oYTsawcnhu0z3wc+0dXgluvVIPNyz2XsLfxiBtieBD3t/cvDHxIS9uqlDHz58+MZNn6zUXLrMN1I6ly/juo0dOfvamcO3m1XMWqLn1ueb9Yva8MgzulXrMtcXcS3gmTMGxRPg1ZQC1uXVjmn4YT2RrODhWXJTpFtyQr2gISBL6e1UEJAn5imZbNl2oQpYkDPVFIEsS0oXqnNXDrc817xdLi5/SrUz3Eo6kokviy8PiDkFpxlL79rHYuDV8sdSGDuZKX1xFy7KQK2poWRb64qpt2eFkDKY1hcl8HaZlYTgZm7N6uPW55v1i6fBjr+li7SU8E37ylojFPEdhqRC5MXU7hCn6MK5pOiZzNdQ1fUlfQwPJCF5z4bKu5qStHE7g2s2rXZmT5tbnmveLpcMrX9Q47eLMGKQtIUvp28dSJvLNWORhPH3evqSBfKHa8Ru3H2+6InUeSEY6LhiYtnI4IRSceeG94/3iJV5oD7d4odfUj71584VBGtEiI/rNuNuHca1hoKmbMFommrrpeF4/3nS9UmfRvWWfPpSDYbQQDAZw4Zr+joGzGz2hizmI8cp14ZaoqmB5KjbTK7zU87p57VrmwgGiDvw0qRZw8ZuxBYxNVXB4vIixqQpg2Rf148Rzr9RZpB7ZkoaJbBW1RgsT2SqyJfsFDNPBxvHJypwuElnsi0+8cl24pabpGM9W0WiaGM9WF6T93O7N6/YeXtN07DuUxXPH8th3KOuJa5k9aUQOvPQtuut5Zm59M5aA0YEYUv1xZHMBQLIv6oUhFFHRcBC1hoFStYFgcOE23RZ+76STTeHQHsBLwUZPLIRisTZnvRVe6gUR4da8Tb/xQvu5vZdqt/fwbEnDkckyQnIATbOFkVRswad0LK6rjWiOeeEGBogPgY1n22kfxrNVRNW5uYFEw0GElACCARkhxTmI8evEcwkWLKn950IRee9SPSqW9UfRbJnoiSlI9divMp0ONkrV5pJfCerWvE0/8kr7uTUHUuQeXm8YyBUbiISCqDcN1B16TefrC7z3P01EC8grNzCRG41bgeX0wyoSU5GKdX5Y+W3iea1hIBJWMOiBHqFu37uoqmDDmlTXPawi7SdSV78FMW7N2/QjP7afCJF7eCQcRKpXhRKQEW0FEXEoO19f4BmkLSFemxDpB165gYncaNwMLKOqgsH+KDKt1pydc5rI9elG2Wg4iHpDR7HWQCgg+6JHCBALINxqP78FMV758uUVXmg/t55Poj3Tq4biaLZMhAJyVz3Tbl9DS/vKXAS6vbBFu2bdDOhEVpiJ7Hno5od8rvOTiZYXmWfmhdVaokSHc90oCwCabqJeb8KMhLqqsxtBpZvnnirUkak0IRmtrtOHLEZe+fJFbW4PHbrZM805aWRL6GElMlzm4gdGJNeWyJ6HXpjgP5tA2I15Zm7NSXOTW8O5ImWzJQ35koaoqiBf0pA9+f9nPK9g2/3qwCSqmo6YquCS9UMdr4tfHcigoumIqwouWT/oeO59h7Iz3/w3rEnZlp0q1PGj3xxHOBxCo9HE729asSCBmld69L3Qe0RtXpn7C4j3TLtdTwZpPjadt0oJStANy/HCFhnKETnvtKlCvavs6yK5tk7d83AyX0e6ULUP0gTrLNJD123ZWsPAVKGOhm4grASxfKDDyiCB8rWGgXJVh2mZkCW5Y2Ai2n5uEHkYiw7ndrsKMxoOIp2v4sCxBnrjYZy7vMe5zg0DFc2A3MVKyabeQjAowzCcr+PjmQqeejGHYECC0bIw1BfF+pV9tucey1Sw/0gOqhLEMb2M4b4IzrMpny1pOJGrIRZWkG1ojqvRTuSqyJcbWKaGkS83cCJXnfcgzQtfprzEKwHrQuPwsz2+Ex7U9Qf3ZN6qgCShZVk4Z8Q52LAgQbLaf3YoKHTeqUIdP3/6xEz511y4zP7mbwGHJ4o4ka+j0Wg6nns4GUOtMYHnjzegBGXnPQ9PntdsWZADkuN5j6XL2LX7EEzTgixL2HbZGtvgS6Q3L1fU8MtnJ2ceQCsG4xjotX8IipSvawb2Hc7OlF01HAd67d8LkfZzg+jDWHTooNtVmNmihueOFmFZJiZyGtav6LM/twXkShosy4IkSY554NrvcfWU99g++CtWGyhVm0hEFJTrOorVhmOdNd2A0bJgBi0YLQua3iEvl3Wyqh0WpIaVACwL0BoGLKt9PN+81GOy0BiwvoTDz/YYpHmM0Af3ZN6q6W/zTrHX9MUf74t0vjkKnBcA8hUNrZaFSDSISk1HvqLZBmn1pgG9ZUGxTOgtC/Wm/QMoEg4iGVdRrzcRiYQcV9q0zyMhHA5AN0zH8x6dLKFa15FMhFEoN3B0smQbeIn05pXqDcTUIGIRBdW6jlLd+WFcqjfQGwvN1MOpvKYbGOhVEY+GUKk1nR/cgu3nBjcfxiKrMNOFKkJBGUN9sY7tp+kGRvqjiEcUVOp6F+9xfKa30uk97o2FkYgpUGQZiZiC3ljY8fUlYyosy0K51oQsS0jG7Ccvp3pUjKRiMIwWemIhx4nOKwbjuOCcfshBGcN9KlYMxh3r4Qb2mLyEAevpOPx8Zkv3E+JRIh/c6bxVsiRBVqQ5W/Encl4AUJUgpop15EoaTMuCqjgEUw0D5WoTSjCIcrXpmIcmX9HQnwijf0UvckXNMfgDgJAiIxZWUG04Z4nuiYZhWkC1bsC02sd2hpMxNI1JHJssQ5Ikx968nkgYhUoT2WIdgUAAPRHnh3H73BMYy1Q69hT2xVVkCnUcPJ5Hb1xFX9x51dFYpoLJfBVDfTG8/Jx+x3p0O1Q9XbabieeiiWFFtjdqD2HW8NyxBpIdhjDb73HmZPt1fo8DARlN3UQgIHd8j0OKDFmSICnOn6cVg3FsPDc1MyetU3AUUYN4xboBtEwLAVlCRHXOR3fhmv6uJzr/3vpBRGIq6lX7+XZucrvHxK0FF25Mj4iGg8hXGhjPlBGJhDoPxbu0pRd5G4M0jxEKpgRX/HV7cxS9kUbUIDac0w/TsiBLzg+VSDiI/t4wkokwgJZj71hfXEXLspAramhZluNDUySp59rRXlz6siEUKxp64yrWjtqNGwKpXhXnr+pDodIOCFK99ueFBMQjClpmAAFZ7tiDFQkHZ3pt4hHF8b0Yn6rgxfESTNNCttTE+FTFNkg6eLyAXzyThmlaePFEBWuW9WDjusEzlhUZqp4u2xNXUapozsPaEEsMO729UVRVUCtqWJaK2k/wL2p47mgelmUhnath/Yqkbdl2+/WiWGnPSXNqv4FkBK+5cFlXAavo5+llq/q7Xm0bDQeRiIZmetM7Bbhu9UB4YbW0CJFAX2TEQmTKg9hiJwPpXBUt00KprqOm2Q/Fiyy4osWFQZrHiAReoqv43Fq1Eg0HkYh191BJ9ahYPZSAGgmjNxJwDKZEH5oiS6dfvWGku9QlDQPDfVGsHe3t2LPZ0FuIRYLojYVRrDbQ0J1zUZ04eYMe6Y+hWHWeyH3weB6mBfT1hJEvN3HweN428Dp4PA+jZaEvEepYNl/REJAk9PeqHXsr28PaJsKhAFot07Hs9OIF07LQNJ0n1p/6b7qZtN8ewgx0vaBkuC+GtaPJroaUBpKRrifTd/sZqWk6Dp0ootkyUSg3uvqcutHbJPKg99J8qW6DRZFAX2TEIl2owjQt9CRCKJQbjtebyPSIfEWDqgS7+uy5taUXeR+DNI8RSrXgkTkNor0KG9akuh5yiapBQFLnfO5K13lzBHo2l/XH0JdQYZom+hIqlvU7LHTASxO5G81Wx4ncQ/1xWJhEqabDgoWhfvshM5GyfXEV5bqObKmOkBJ07K1sD2trqDdNVOtN52FtzcC+w7lTFjok7Bc6AEKT9oeTMZjWFCbzdZiW5TiEKTrsKjL0e+BoHmPZMkZTCaxfZb9aM1vS8MJ4CbAsQJI67gcIuNPbJPKg98q9RThY7HIfU5HPdU8kjFy5gWxRgyRLjtMYRK5NkZECt7b0Iu9jS8+TrpPOCs5JE5mE67fl3qLDF93mlpouP9dJZAeSEWy+YHhmPkqnh/yKwThWDsWQLdaxcijmOFfpkvWDOJYuYzxbxvJUApesP3PP2HTZiWwVJ7JlLOtQFmi/F5VaA3GHuXlAe1h79VACLRkYSIQdh7U1vf3eyjJgmui4QlHTDfREQ5CkdizjVH7lcAJbXj6MI5MlrB7q6ThHKFusI1eqo7+n83y7bod+DxzN495HnoehGwgqQdz0+vNsA7V8WcNzRwtotVoIBAJ4+Tl9WDk0d4mZRXdUODpRgtbQF2zXChEi90OhfUwFvlhG1CBWDsZhmC0E5YDjdb9yOIFrN6/uak6a6EjB8lQMVjCA5V0E+bR4MEibByIJJ0XnpHV7o5mPBLUiGeC7GXLJljQcTZegBALQWy3H4QuR3FJuJpGdyFXRbJmYyFWR6u00XG2gqrUQUoKoai3UNKcEwwYUJYCVQz2QZdmxLACMpGKIx0KId2jjQxNFTBbqUENBTBbqODRRtF+Zqxl44UQJSjgIvWHg5Wv6bXvHLLOdomL6PbZMx2rAMoFD6RIsw4IUlPCqC4Zty04V6jhwvACzZeHA8QKWD8Rt6/zCWBG/OTiFgCzh6GQVKwbjuGjtwBnLiqxSfurQFPIlDRE1iHJJw1OHpmyDtEyhjnKtgWBAhtEwkCnUHd8LN3dUsE52NXVKw+PmBH/R/Hnd5ncUmfIwXb7b19WbCHW1KAloB2qdvji8VIfuRgqm70N9yRjyBX8kqKa54esgrd4wOub6Ed0ypduhDpFzZ0sanj1amOkRchruiKoKtIaBQxMFrBmxnxD9Uh0M5CsaYHUICBoGTmSqKGkN9KjhjolW9x7MzPRU2M1nOvXcB47mZ3orOiVlffJABvnqMfTFVMey9YaBA8cKqGs6IqqCjTYPV6Dd8zJV0tBs6giFFMeemFrDwG+ezyCdq2C4P96xvr/YdwIT2QpGUs5l2+2ch26YUIJyx2Gt6TleoaCMpuE8x0ukbLak4XimAtMCCuUGVo8kbOvRbJoo13TUNB0ts31sp1BtoGVaiMkSNNNCodrASpz5YSTJwFAyCtNqQZYCkGTb0wIAirUGLNOCFJBgmRaKNft0JCdyFWQK2sxQ5omc/SKKTLGOar29Gq6m6cgU7QMkVQliIleDlTUhSTJe+bIh27JKQIbRMlGtNWFa7WM7kgQEgwEEZQmQJEhdJMoVS1zcXVLddq8UEI+E0Kg3Ow5hdntvAbq/X9Q0HXv2nZhZyPHqDcs6nltkqy4R3d6/Uz0qYqoys9DIqYcO6H4YfDY7xnBOmvu8NuLk6yDtSLqMFU4PWIEPgVBCVsFzn8hWceBYYeYBe/6qpO1wx96DGTz4s0Mn/z8PNRSYk5V545kKfvb0iZnhpGUDUdvEqXsPZnDfj16AJAGPPZMBAMcb7/7DOfxk7wlIACwUMNwfxWtfMXrGso89M4GfPnUCsgSYFpBKqrju1WvOWPaF4wUcSZfb85MkDS8cL9hmak/n6jh6oox2YQ3pXB0XnXvm+j72zAR+9tQJyACeHytjoNe+Dj/81TH84pkMJACH03X0JcL4o6vWn7Fsu52Lp7Sz87CWZQIHjhfRMloIBAO4+Dz799gygf3HCtD1FhTFuWyhrOFouoxwMICG0cIGh+E1RZGhGy00TiYBVhSHaMqyUG/oCAZk1Bt6+0JyqO9kodZ1T1qz2UJTfykIbTYdFl1YErLFOrKnHNtJRBSYLQuVWhOw2se2JEANBaA1TaihgOO8pr6EilbLhNYClED72M5ATwRmq4Vaw0IwKGGgw7BrXTPwxPNpGEa7fKfExYcnSqckcXZI43AyAW9Za6FU0RzLitxb9h7M4J7/eg6mCcjyCQD294uDYwU8/mwGqhLA88dLGExGsHGt/bXs5lZd3Zc1MJmvoaG30NBNx17sA0fzeOCnL0KWJDxmZfDm155rG6jNZmqLF+akubln7ULz0oKZaR2+33qbrrdQc8izdeqHQJYkx7KnrnILSFL7G6QDkXPrhgk1JCOmBqGGZOiG/RPr4FgeDb2FkBJAQ2/h4Fjesc6tloVQKIBWy3Ksc7ZcR0wNYsVADDE1iGzZvkfhyGQJkgQM90UhSe1jJ+PZMsJBGUN9EYSDMsazZduyL4znIUtALBKCLLWP7RyeKKHVAgKyjFarfWz7+ko1xFQFw/0xxFQF2VLNtuzRdBFKQEIyEYYSkHA0XbQte2i8ABlAPBKAfPLYjm6YiKpBJBNhRNWgYzsD7d4jWQLUcBCyBMfeo0yhBk0zAMuCphnIFOxfH6R2eg81FGin9XAINpq6CUmSEAhIkCQJTd2+zsmEioGeCEJhGQM9ESQdAhNJBkYHY1g2EMXoYKxjT1oiFoKiBNCyLChKAImYfa+JhfYE/On/LIdVBr3xMAb7I+jvbf/ZG7efd1coa5gq1qHrFqaKdRTK9p+nyUINgaCMRCSAQFDGpEN7NAwT8WgYfT0q4tEwGh2ui4l8FeWqDt1ooVzVMZGv2patNw3oBtCyLOgGHJM4Q2oHjH097XZ0ui5E7odPHsygUtdhWkClruPJgxnbsuWaDkkCohEFktQ+7qTZaqFW19FsOa+WFrknT68+bpkvbU9n50SuikpdRzTcTpdzImffHmPZMizLQm88BMuyMOZwL5zN1JYVQ3FXAoeapmOqWEdNc26P6ak7zx3LY9+hrGP56YBnIlvDwbFix3N7gcg1NF98HaRN5GuOq8BEPgQiK21Ezz3YG4EsydD0FmRJxqDDVkG9MRW60V6qrxsmeh2yjU8nkT06UcZUse642m40lYAkSShWdUiShNGUfQ/P6qEeWBaQztdgWe1jJ2tGkrAkoFBpwpLax3ZWDfXABKA1DZgnj+20c6lhJnCYPrarA2ChUtcBWI51WLeiH2bLQqHSgNmysG6FfbLX9av6YQEo11uwTh7bWTWUQG8sDFlqZ5lf1WFyuARACcroiYagBGXHWULlWrOd3DQgo2W2s9HbScZUBGQJestEoEPG+qZuwGiZsCyc3E/V4aZkAYWqhnypgUJVc/zsqUoQpWoTxUp7SySnaxMAIqEg+hMhpBIq+hMhREL25SVJQqonjJWDMaR6wu3VoHbnDQexciiO80b7sHIo7piLDhLQEwkhmQihJxJyDGJCgfbwZSgUbP8ZcJp2YSGstNPNtKdnOOeNazRNNPQWWmY7rUvDYQi63jBQrjVgGBbKtYZjcmhYwFSpjnxJw1Sp7liNvrgKTW/h+GQZmt5yvB9GwgpgSTBaJmBJ7WMbq4YSiEdCaOoG4pFQx89IJBQELKCuG4AFx+tCaLHDyW3knjuSx+GJouN7IbIKO5WIoKoZOJ6poKoZSCU6LwYIh+SuFgNEVQVD/fbzcmdLJJia3itW01o4kashW7IP3r0U8HQbhHplwcypFr4GZ2GkL+Z4IxWZ/Cqy0kb03P29KjZvGIbWNKCG2nlx7Kxf1YcN40XU6jqiEcVxToNIEtn1q/rw5tee29VciY3rBlGsNvHCeB5rl/d1nJP2qpePoKG3Zsq/6uUjtmXf8MrVmCo2kC7UMJyM4g2vXG1bdu3yJH6+dwJGy0QwIGPt8qRt2QvPTeFIuoz0VBnDAwlceG7KtuymdYPYezCLXKmG/p4oNjm8vssvGsVzRwvIFGsY7I3i8ovOPIwLtCcMX37RSNerDs8Z6UUyPoVCVUMyruKcEfscFaODcSQiARgWkIgEMOqwEjSiBvGy1X0z15vTdRFSAgjKMiCZCFoyQg4PoIl8DbVG6+RcsBYm8jX71ygBiUgIestsz9fqMA9LDQcx0BsDYAKQoXZIdZKMh9HQW0jGw46pTlI9KpIJFeWyhmTCeT7Rsv44BvpUmC0LsYiCZQ6pSzadN4jnjhVQbzQxlIxgk8Pw85qRXqwaLqKht9DXE8Yah3YGgOG+CAaTEUgAElEFw33296JIOIiB3jACgQBirUDHIHR0IIZUfxzZnPNwblQNYqQ/MrNLQtThGtr88hG8MFZEVWsipoaw2eHzL/oZgQScM9LT1RZnUVUBLAuH0kWsHupxvCfXmyf3R7UAucP2dNPbaU1vT+e0Cnv5YByvuXAEFa2JuBrCcoeyonkuRYlkFOh2XiPQ/tJsWXrHkYJoOIhCRcPYVBkxVem4o4JbRIYw3VwwM1u+DtIUxXm1DyCawNWlnFzhIAZ6I10ne9103tDMIgPHZeQCSWSBdqDmFJxNmyrUkSs3MNATQ67cwFSh3nF+Xm88jEvPXwbTslDrsG3JxrUpqJHl0Drsbam3TAz3R6EE20PEesv+plBrGFizrBfrVyahG5bjjSZf0bB+ZRL9vSNdJXDdcE4K/b2jHcu2Vx0WYZomDhwvOq46BNq9IJV6E6ZhoVJ33iJrWSqOc5YlUdeaiKghLEs5bC1ktYeRApLUHk5y7CUIIhCQIUGCBQlhhx6vRtNAo9mCGlLQaLbQcHiwaQ0Dmm5AVYLQdANah2/RkVAQutF6aZ9Wpx4TNYhkPIxcqY5kPOwYQNQ0A0cnSu1dHapNbFo7YHtdDCQj+P1NK7r6orZyOIG3vu68rlMtvOHSVV1/ARwdjOPl5/TP7HLhFJCnelQM9UVPBlPhjvcLrWlgPFOG1Wo53i9qjXaAH4+GOj64Vw4ncNMbzu/qvZgq1HFoooyAJOPQRLnjZ0Rki7oDR/P47qNHIUsSnjlUgBoK2t7vtIaBfFlDQJLRskzH6zOqKrhgVV93O7uEg1g+GO/qniwaHIlsCyU0t0pgXmP7c2mh0TAgByTHz2lNM3BssoKG3kJYCeBlq+xTKLlJNOefGzkKz4arQdquXbvw+c9/HoZh4O1vfzv+9E//9LSf79+/Hx/84AdRrVZx6aWX4iMf+QiCwe6r1BsNzdnExZqmY/e+CZTLGhIJFZdtGOlY/okDmZmHyu855OUSybUVVcX24lOVwEzv2Fy9FyJZ6IHp1WjNmR69TivMImEFK0d6cGy84Fg2EVUQUgJQlQAkqYVE1OH1nRy+eOlGY/+gEEng2h72MXBssoyALDmWPZGrIpOvnVxJqDnuIAC0N3qvaAaUgIyKZjhu9A4JWLu8d2bFn2PPlNR+77SmgWhIcSyrhgMY6Y9gekWJGrbvSRvui6I3HoIkmeiNhzDcF3U4bxCWCUyVaoiFQ449Y0A7l1ix2g7am9UG8mX7a24sU8HhEyUEAzJK1RLWjfbaplt57mgeh0+UoYaDmCq0t5NyzkfV/Re1VK+KiBrsqqzITgYA0BNVoIYDCDmsGp0WVgKQZKlj2ZpmYCJXR1hV0NB05zQuJxcZTC8ccFyQgO7TTojeW0R6Nk6dD5YrNzCWLdsGaRYAo2XBQGvm2E5N0/Hs0dzJQLiGS9ShuemJEXiPRbeFEglM2r2IMsJhCbrh3KvY7tnshRJsl3W6t5zIVVGoNE72qDnvqOImLw5hinCttul0GnfddRfuv/9+hEIhbN++HZs3b8a6detmyrzvfe/D3/7t32LTpk24/fbb8fWvfx033XRT17/jy9/Zh3ddf6H9VhqajjvvfhSTxSaGekP40Ds2216oB8cK+OaPD6LWtBANSRhKqo6rjo5nKrjvB8+holmIqxKG+yK2Kw9rmo5//OZejE9WsXwohr/afonjB+y+Hz6P545kcf7qFN5+7cttyx1Ll/Glbz+NUkVHT1zBzj/c5LBPnI7P/eeTOJ4pYcVgD97zh6+wrUNfXMUv9k3M9KBt2WA/fAG0V6N99xdHUKpp6Imqjtnlo+EgnnphCj988jgG4irOXW6zBBPAutEk1i4vYCJXwdrBHqwbTdrXoWlgMl9HpdZEPBpyvtEAyJc0FCp1JOOdhrWD7YUWxTp6eiOOvTaWZWEsU5355mg5rH4EAK3RQjpXm8myrzWcVjSi/aCoNRCLhnH+qqRt0bpmYM/T6Zmy540mbdsjGQujXGuiWG2gNxZGMmY/708NBVEoN2beY9XhW3S+pGHf4dzMkOuWDcOOK10L1QbGMhU0mgbCoSAKVfte1kK1gRfGizPnvrRqnyqjYRioaTqqWhMSJDQMh8nkmo5/+96zOJouYtVwL952zcscVweKJE8W2aC71jDQNEy0TAtNq3NajW7LtrchCuCcZb04fDzvHCCdXGTQ1ZcCdP8FUHTur4hUIoJSpYl8uYGAJDnOB5PQnoM5vYm908s7nqng189PnVy9Dgz1RW3v9YBA6hIJGOhRZ77cOlVi5ouwJKNa7Zw+RTQwCSlSV3ngouEg6k0DuWK7c8LpvJZlYTKvwTRbkOXO90O30mWJdJKImo/Vq64tHNi9eze2bNmCZDKJaDSKa665Bg899NDMz8fGxqBpGjZt2gQAeMtb3nLaz7uhBIP494f3Q5alM/73xW89BcjtPf4gB/DFbz1lW/aHvz6GeEzFUF8E8ZiKH/76mG1ZWZbwnT2HEI20y0cjKr6z55Bt2Xv/61nUGiaSvRHUGibu/a9nbcs+8JOD2H+0CFMKYv/RIh74yUH7OvziEAKBIPp6IwgEgvjOL+zr8MBPDiJb0RGJRJCt6I7n/f4TR2FYQLI3AsMCvv/EUcf34tH9EzAsIBpRYVjAo/snbMvuP5LHgfEiiuUmDowXsf9I3rZsuaajYZhIJiJoGO18XnZlxzIVZEsN6C0gW2o/8O3KHhwvolw3oKohlOsGDo4XbctminWUagYSURWlmoFMsW5btlBpQA4AkUgAcgDtY4f3rZ1LLIKRvhiGkhFIMmzLnshV28vvZRmlahMnclXbsgeO59HUDYTDCpq6gQPH7d/jsWwFLctCPBJGy7IwlrV/3558IQPTBGLREEwTePKFjG3Zp16cQkRV0N8TQURV8NSLU47vxUSuCkgywuEQIMmYcHh9RybKCAaDiEdVBINBHJko25YNyDJCoSDCioJQKIiALNuW/cGvjuHwRAWWFcDhiQp+8Cv7e8BUsY7xbBWNRgvj2SqmHK6LdK6G3fsmcGi8gt37JpDO1Rzfi1bLwvFMFelcHcczVbRa1pyUHUpGEYkEUa03EYkEMZSM2pZVAjI0w0DLtKAZ7d5eu7INvYXjU1UUyk0cn2p/SbGtQ38Uv79pFBvPS+H3N41iqN++DqLn7k2EsXZlL9aM9mDtyl70JsK2ZS0JiKgKemNhRFQFlmT/2avUdbRMC8FgAC2zvTjJrmyx0sCTL05hLFPFky9OoehwD2i/x62T73HL8T1utSwcn6ri2EQJx6ec21mWJcSjoXYKoOE4zl/Vh3g0ZN8mfVGcu6wH/ckwzl3Wg6E++zbRDRM1TYdhtQMU3TDt6yFJiEUV9MZVxE4uHpiLdhZ5j6fPnas0IEFGrtJwPLfIfyJ1nv5vNiSrU3g7S1/4whdQq9Vw2223AQDuu+8+7N27Fx/96EcBAL/+9a/xyU9+El/96lcBAEeOHMG73vUufO9733OjOkRERES+4lpPmmmapy2Nn9k4ucufExERES1lrgVpIyMjyGReSmqYyWQwNDRk+/OpqanTfk5ERES0lLkWpF122WXYs2cPcrkc6vU6Hn74YVxxxRUzPx8dHUU4HMYTTzwBAHjwwQdP+zkRERHRUubanDSgnYLjC1/4AnRdx4033ogdO3Zgx44d2LlzJy666CI8++yzuOOOO1CpVLBhwwZ87GMfQyg0t5voEhEREfmRq0EaEREREc2Or/fuJCIiIlqsGKQREREReRCDNCIiIiIPYpBGRERE5EG+DNJ27dqF6667DldffTXuueeeha4OdaFSqeD666/H8ePHAbS3Ddu2bRuuvvpq3HXXXQtcO7LzD//wD9i6dSu2bt2KT37ykwDYdn7y6U9/Gtdddx22bt2Ku+++GwDbz48+8YlP4AMf+AAAtp9fvO1tb8PWrVtxww034IYbbsCTTz45u7azfGZiYsK66qqrrHw+b1WrVWvbtm3W888/v9DVIge/+c1vrOuvv97asGGDdezYMater1tXXnmldfToUUvXdeuWW26xfvSjHy10Nem3/PznP7fe+ta3Wo1Gw2o2m9bNN99s7dq1i23nE48++qi1fft2S9d1q16vW1dddZW1f/9+tp/P7N6929q8ebP1v/7X/+K90ydM07Quv/xyS9f1mb+bbdv5riet08bt5D1f//rX8Td/8zczO0rs3bsXq1evxsqVKxEMBrFt2za2oQcNDg7iAx/4AEKhEBRFwdq1a3H48GG2nU+86lWvwr/+678iGAwim82i1WqhVCqx/XykUCjgrrvuwq233gqA906/ePHFFwEAt9xyC974xjfi3//932fddr4L0iYnJzE4ODhzPDQ0hHQ6vYA1ok7+7u/+DpdeeunMMdvQH8477zxs2rQJAHD48GF897vfhSRJbDsfURQFn/nMZ7B161a8+tWv5mfPZz70oQ/htttuQ09PDwDeO/2iVCrh1a9+NT73uc/hK1/5Cv7jP/4D4+Pjs2o73wVp3Jjd/9iG/vL888/jlltuwfvf/36sXLmSbeczO3fuxJ49e3DixAkcPnyY7ecT9913H5YtW4ZXv/rVM3/He6c/XHzxxfjkJz+JRCKB/v5+3HjjjfjMZz4zq7YLullRN4yMjODxxx+fOf7tjdvJ+0ZGRpDJZGaO2Ybe9cQTT2Dnzp24/fbbsXXrVjz22GNsO5944YUX0Gw2ccEFFyASieDqq6/GQw89hEAgMFOG7edd3/nOd5DJZHDDDTegWCyiVqthbGyM7ecDjz/+OHRdnwmwLcvC6OjorO6dvutJ67RxO3nfK17xChw6dAhHjhxBq9XCt7/9bbahB504cQLvec978KlPfQpbt24FwLbzk+PHj+OOO+5As9lEs9nEI488gu3bt7P9fOLuu+/Gt7/9bTz44IPYuXMnXve61+Gf/umf2H4+UC6X8clPfhKNRgOVSgUPPPAA3vve986q7XzXkzY8PIzbbrsNN99888zG7Rs3blzoapGAcDiMj3/84/jLv/xLNBoNXHnllfiDP/iDha4W/ZYvf/nLaDQa+PjHPz7zd9u3b2fb+cSVV16JvXv34k1vehMCgQCuvvpqbN26Ff39/Ww/n+K90x+uuuoqPPnkk3jTm94E0zRx00034eKLL55V23GDdSIiIiIP8t1wJxEREdFSwCCNiIiIyIMYpBERERF5EIM0IiIiIg9ikEZERETkQQzSiIiIiDyIQRoRLXq/+c1v8La3vQ3btm3D9ddfj3e+8514/vnnAbQ3Qc7lcgtcQyKi3+W7ZLZERCKazSb++3//7/jnf/5nbNiwAQDw4IMPYseOHXjkkUfw85//fIFrSER0ZgzSiGhRq9frKJfLqNVqM3/3xje+EfF4HHfccQcA4O1vfzu++MUvQpZl3HnnnThx4gR0XcfWrVtx66234vjx43jb296G1772tXjyySdhWRY+9KEP4dJLL12ol0VESwB3HCCiRe/uu+/G//t//w8DAwO45JJLsHnzZmzduhWRSATnn38+9uzZg/7+ftx88834sz/7M7zuda9Do9HAjh07sH37dmzcuBGvf/3r8alPfQrbtm3Dj3/8Y3zwgx/ED3/4QyiKstAvj4gWKQZpRLQkVCoV/PKXv8Qvf/lLPPLIIwCAb3zjG7j00kuxZ88eqKqK3/u938P69etn/k2tVsO1116LP/7jP8Zb3vIWPPbYYzM/u/LKK/G5z30OF1544by/FiJaGjjcSUSL2hNPPIFf//rXeOc734mrrroKV111Fd773vfi+uuvP20+mmmasCwL//Ef/4FIJAIAyOVyCIfDyOfzCAQCp53XNM3f+TsiornE1Z1EtKj19/fj85//PB5//PGZv8tkMqhUKli/fj0CgQAMw0A8HsemTZtw9913AwBKpRL+5E/+ZKbXLZfL4Sc/+QkA4Ac/+AEURTmt142IaK5xuJOIFr1f/OIX+OxnP4uJiQmEw2EkEgm85z3vwRVXXIH3vve92LdvHz772c8iGo3iox/9KMbHx9FsNnH99dfjL//yL3H8+HFcd911eMMb3oDnn38eqqriIx/5CC644IKFfmlEtIgxSCMi6uD48ePYtm0bfv3rXy90VYhoCeFwJxEREZEHsSeNiIiIyIPYk0ZERETkQQzSiIiIiDyIQRoRERGRBzFIIyIiIvIgBmlEREREHvT/A7YYRwma08ZWAAAAAElFTkSuQmCC\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# plot the likelihood evolution\\n\",\n    \"\\n\",\n    \"# set up the min and max boundary for the plots\\n\",\n    \"tmp_list = [x.sum(axis = 1, skipna = True).values for x in iqspr_results_reorder[\\\"loglike\\\"]]\\n\",\n    \"flat_list = np.asarray([item for sublist in tmp_list for item in sublist])\\n\",\n    \"y_max, y_min = max(flat_list), min(flat_list)\\n\",\n    \"\\n\",\n    \"_ = plt.figure(figsize=(10,5))\\n\",\n    \"_ = plt.xlim(0,len(iqspr_results_reorder[\\\"loglike\\\"]))\\n\",\n    \"_ = plt.ylim(y_min,y_max)\\n\",\n    \"_ = plt.xlabel('Step')\\n\",\n    \"_ = plt.ylabel('Log-likelihood')\\n\",\n    \"for i, ll in enumerate(tmp_list):\\n\",\n    \"    _ = plt.scatter([i]*len(ll), ll ,s=10, c='b', alpha=0.2)\\n\",\n    \"_ = plt.show()\\n\",\n    \"#plt.savefig('iqspr_loglike_reorder.png',dpi = 500)\\n\",\n    \"#plt.close()\\n\",\n    \"\\n\",\n    \"y_max, y_min = np.exp(y_max), np.exp(y_min)\\n\",\n    \"_ = plt.figure(figsize=(10,5))\\n\",\n    \"_ = plt.xlim(0,len(iqspr_results_reorder[\\\"loglike\\\"]))\\n\",\n    \"_ = plt.ylim(y_min,y_max)\\n\",\n    \"_ = plt.xlabel('Step')\\n\",\n    \"_ = plt.ylabel('Likelihood')\\n\",\n    \"for i, ll in enumerate(tmp_list):\\n\",\n    \"    _ = plt.scatter([i]*len(ll), np.exp(ll) ,s=10, c='b', alpha=0.2)\\n\",\n    \"_ = plt.show()\\n\",\n    \"#plt.savefig('iqspr_like_reorder.png',dpi = 500)\\n\",\n    \"#plt.close()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 1-2min to complete!</span>**\\n\",\n    \"\\n\",\n    \"Next, we plot the evolution of the generated molecules in the target property space. Note that if your forward models are BayesRidge, you need to add return_std=True to the predict function.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 59,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Range of std. dev.: (25.5198,33.2724)\\n\",\n      \"CPU times: user 19.1 s, sys: 190 ms, total: 19.3 s\\n\",\n      \"Wall time: 20.2 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# re-calculate the property values for the proposed molecules\\n\",\n    \"x_mean, x_std, y_mean, y_std = [], [], [], []\\n\",\n    \"r_std = []\\n\",\n    \"FPs_samples = []\\n\",\n    \"for i, smis in enumerate(iqspr_results_reorder[\\\"samples\\\"]):\\n\",\n    \"    tmp_fps = RDKit_FPs.transform(smis)\\n\",\n    \"    FPs_samples.append(tmp_fps)\\n\",\n    \"    \\n\",\n    \"    tmp1, tmp2 = prd_mdls[\\\"E\\\"].predict(tmp_fps)\\n\",\n    \"    x_mean.append(tmp1)\\n\",\n    \"    x_std.append(tmp2)\\n\",\n    \"    \\n\",\n    \"    tmp1, tmp2 = prd_mdls[\\\"HOMO-LUMO gap\\\"].predict(tmp_fps)\\n\",\n    \"    y_mean.append(tmp1)\\n\",\n    \"    y_std.append(tmp2)\\n\",\n    \"    \\n\",\n    \"    r_std.append([np.sqrt(x_std[-1][i]**2 + y_std[-1][i]**2) for i in range(len(x_std[-1]))])\\n\",\n    \"\\n\",\n    \"# flatten the list for max/min calculation\\n\",\n    \"flat_list = [item for sublist in r_std for item in sublist]\\n\",\n    \"print('Range of std. dev.: (%.4f,%.4f)' % (min(flat_list),max(flat_list)))\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"**<span style=\\\"color: red; \\\">Warning: the next module may take 1-2min to complete!</span>**\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"We can see that the algorithm spent a longer time exploring the lower internal energy region, which ends up not able to find candidates within our target region in this particular test case. In practice, a certain direction may be preferred to guide the search based on prior knowledge.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 60,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 19.2 s, sys: 398 ms, total: 19.6 s\\n\",\n      \"Wall time: 19.6 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"import os\\n\",\n    \"\\n\",\n    \"# prepare a folder to save all the figures\\n\",\n    \"ini_dir = './iQSPR_tutorial_prd2/'\\n\",\n    \"if not os.path.exists(ini_dir):\\n\",\n    \"    os.makedirs(ini_dir)\\n\",\n    \"\\n\",\n    \"flat_list = np.asarray([item for sublist in r_std for item in sublist])\\n\",\n    \"s_max, s_min = max(flat_list), min(flat_list)\\n\",\n    \"flat_list = np.concatenate((data_ss[\\\"E\\\"],\\n\",\n    \"    np.asarray([item for sublist in x_mean for item in sublist])))\\n\",\n    \"x_max, x_min = max(flat_list), min(flat_list)\\n\",\n    \"flat_list = np.concatenate((data_ss[\\\"HOMO-LUMO gap\\\"],\\n\",\n    \"    np.asarray([item for sublist in y_mean for item in sublist])))\\n\",\n    \"y_max, y_min = max(flat_list), min(flat_list)\\n\",\n    \"tmp_beta = iqspr_results_reorder[\\\"beta\\\"]\\n\",\n    \"\\n\",\n    \"for i in range(len(r_std)):\\n\",\n    \"    dot_size = 45*((np.asarray(r_std[i])-s_min)/(s_max-s_min)) + 5\\n\",\n    \"    \\n\",\n    \"    _ = plt.figure(figsize=(5,5))\\n\",\n    \"    rectangle = plt.Rectangle((0,0),200,3,fc='y',alpha=0.1)\\n\",\n    \"    _ = plt.gca().add_patch(rectangle)\\n\",\n    \"    _ = plt.scatter(data_ss[\\\"E\\\"], data_ss[\\\"HOMO-LUMO gap\\\"],s=3, c='b', alpha=0.2)\\n\",\n    \"    _ = plt.scatter(x_mean[i], y_mean[i],s=dot_size, c='r', alpha=0.5)\\n\",\n    \"    _ = plt.title('Step: %i (beta = %.3f, %.3f)' % (i,tmp_beta.iloc[i,0],tmp_beta.iloc[i,1]))\\n\",\n    \"    _ = plt.xlim(x_min,x_max)\\n\",\n    \"    _ = plt.ylim(y_min,y_max)\\n\",\n    \"    _ = plt.xlabel('Internal energy')\\n\",\n    \"    _ = plt.ylabel('HOMO-LUMO gap')\\n\",\n    \"    #plt.show()\\n\",\n    \"    _ = plt.savefig(ini_dir+'Step_%02i.png' % i,dpi = 500)\\n\",\n    \"    _ = plt.close()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Thank you for using XenonPy-iQSPR. We would appreciate any feedback and code contribution to this open-source project.\\n\",\n    \"\\n\",\n    \"The sample code can be downloaded at:\\n\",\n    \"https://github.com/yoshida-lab/XenonPy/blob/master/samples/iQSPR.ipynb\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3 (ipykernel)\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.8.12\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "samples/iSMD.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"## XenonPy-ISMD (Inversed Synthesizable Molecular Design) Totorial\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"This tutorial provides an introduction to ISMD, an inverse molecular design algorithm based on machine learning. By which we show a complete building process of doing your own inverse molecular design algorithm by XenonPy.\\n\",\n    \"\\n\",\n    \"Overview - ISMD aims at finding reactant sets R, such that the properties Y of their synthetic product have a high probability of falling into a target region U, we want to sample from the posterior probability 𝑝(R|𝑌∈𝑈) that is proportional to 𝑝(𝑌∈𝑈|R)𝑝(R) by the Bayes' theorem. 𝑝(𝑌∈𝑈|R) is the likelihood function, 𝑝(R) is the prior that represents all possible candidates of R. ISMD is a numerical implementation for this Bayesian formulation based on sequential Monte Carlo sampling (SMC), all the building blocks to implement the SMC is supplied by XenonPy, the following of this tutorial will show how to customize each building block to solve the specific task in ISMD.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import warnings\\n\",\n    \"warnings.filterwarnings('ignore')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### download data and model\\n\",\n    \"download the data and model from the following link:\\\\\\n\",\n    \"https://drive.google.com/drive/folders/1-uHnS4EcV9dQdSEIlt1n8skCrsZJP-3r?usp=sharing \\\\\\n\",\n    \"which will be used in this tutorial. \\\\\\n\",\n    \"In your device, the a folder called ismd_assets should contain the following files:\\n\",\n    \"- pool_sim_sparse.npz\\n\",\n    \"- STEREO_id_reactant_product_xlogp_tpsa.csv\\n\",\n    \"- STEREO_pool_df.csv\\n\",\n    \"- STEREO_separated_augm_model_average_20.pt\\n\",\n    \"- figure.png\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<IPython.core.display.Image object>\"\n      ]\n     },\n     \"execution_count\": 2,\n     \"metadata\": {\n      \"image/png\": {\n       \"height\": 600,\n       \"width\": 1000\n      }\n     },\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"import os\\n\",\n    \"# set path to the downloaded folder\\n\",\n    \"assets_path = \\\"/home/qiz/data/ismd_assets\\\"\\n\",\n    \"from IPython.display import Image\\n\",\n    \"Image(filename=os.path.join(assets_path, 'figure.png'), width=1000, height=600)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"An illustruction of ISMD algorithm is shown above.\\\\\\n\",\n    \"ISMD is based on sequential Monte Carlo algorithm, which iterate the estimator(likelihood), modifier(prior), resample loop. Both of these blocks are available in XenonPy, however, we can customize them for a specific target.\\\\\\n\",\n    \"We will show how to customize and implement each blocks step by step.\\\\\\n\",\n    \"This tutorial will proceed as follow:\\n\",\n    \"1. data introduction\\n\",\n    \"  - ground truth\\n\",\n    \"  - reactant pool\\n\",\n    \"  - similarity matrix\\n\",\n    \"  - initial data\\n\",\n    \"2. estimator\\n\",\n    \"  - featurizer\\n\",\n    \"  - forward model\\n\",\n    \"2. modifier\\n\",\n    \"  - proposal\\n\",\n    \"  - lookup pool\\n\",\n    \"  - reactor\\n\",\n    \"3. a complete ismd run\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 1. data introduction\\n\",\n    \"#### ground truth\\n\",\n    \"Ground truth is a pandas dataframe of real chemical reactions, each row is a chemical reaction record include reactant, product, some physical properties of the product('ECFP', 'MACCS') and the index of each reactant associated with the reactant pool.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>reactant_index</th>\\n\",\n       \"      <th>reactant</th>\\n\",\n       \"      <th>product</th>\\n\",\n       \"      <th>XLogP</th>\\n\",\n       \"      <th>TPSA</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>12163.22445</td>\\n\",\n       \"      <td>CCS(=O)(=O)Cl.OCCBr</td>\\n\",\n       \"      <td>CCS(=O)(=O)OCCBr</td>\\n\",\n       \"      <td>0.8</td>\\n\",\n       \"      <td>51.8</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>863.20896</td>\\n\",\n       \"      <td>CC(C)CS(=O)(=O)Cl.OCCCl</td>\\n\",\n       \"      <td>CC(C)CS(=O)(=O)OCCCl</td>\\n\",\n       \"      <td>1.6</td>\\n\",\n       \"      <td>51.8</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>249087</td>\\n\",\n       \"      <td>O=[N+]([O-])c1cccc2cnc(Cl)cc12</td>\\n\",\n       \"      <td>Nc1cccc2cnc(Cl)cc12</td>\\n\",\n       \"      <td>2.4</td>\\n\",\n       \"      <td>38.9</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>153658.23440</td>\\n\",\n       \"      <td>Cc1cc2c([N+](=O)[O-])cccc2c[n+]1[O-].O=P(Cl)(C...</td>\\n\",\n       \"      <td>Cc1cc2c([N+](=O)[O-])cccc2c(Cl)n1</td>\\n\",\n       \"      <td>3.3</td>\\n\",\n       \"      <td>58.7</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>297070</td>\\n\",\n       \"      <td>CCCCC[C@H](O)C=CC1C=CC(=O)C1CC=CCCCC(=O)O</td>\\n\",\n       \"      <td>CCCCC[C@H](O)C=CC1CCC(=O)C1CC=CCCCC(=O)O</td>\\n\",\n       \"      <td>3.8</td>\\n\",\n       \"      <td>74.6</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"  reactant_index                                           reactant  \\\\\\n\",\n       \"0    12163.22445                                CCS(=O)(=O)Cl.OCCBr   \\n\",\n       \"1      863.20896                            CC(C)CS(=O)(=O)Cl.OCCCl   \\n\",\n       \"2         249087                     O=[N+]([O-])c1cccc2cnc(Cl)cc12   \\n\",\n       \"3   153658.23440  Cc1cc2c([N+](=O)[O-])cccc2c[n+]1[O-].O=P(Cl)(C...   \\n\",\n       \"4         297070          CCCCC[C@H](O)C=CC1C=CC(=O)C1CC=CCCCC(=O)O   \\n\",\n       \"\\n\",\n       \"                                    product  XLogP  TPSA  \\n\",\n       \"0                          CCS(=O)(=O)OCCBr    0.8  51.8  \\n\",\n       \"1                      CC(C)CS(=O)(=O)OCCCl    1.6  51.8  \\n\",\n       \"2                       Nc1cccc2cnc(Cl)cc12    2.4  38.9  \\n\",\n       \"3         Cc1cc2c([N+](=O)[O-])cccc2c(Cl)n1    3.3  58.7  \\n\",\n       \"4  CCCCC[C@H](O)C=CC1CCC(=O)C1CC=CCCCC(=O)O    3.8  74.6  \"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"import pandas as pd\\n\",\n    \"\\n\",\n    \"ground_truth_path = os.path.join(assets_path,\\\"STEREO_id_reactant_product_xlogp_tpsa.csv\\\")\\n\",\n    \"data = pd.read_csv(ground_truth_path)\\n\",\n    \"data.head()\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 360x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"import matplotlib.pyplot as plt\\n\",\n    \"# show the property distribution of ground truth\\n\",\n    \"plt.figure(figsize=(5,5))\\n\",\n    \"plt.scatter(data['XLogP'],data['TPSA'],s=15,c='b',alpha = 0.1)\\n\",\n    \"plt.title('iSMD sample data')\\n\",\n    \"plt.xlabel('XLogP')\\n\",\n    \"plt.ylabel('TPSA')\\n\",\n    \"plt.show()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### reactant pool\\n\",\n    \"The reactant pool is a pandas dataframe, each row is a reactant which is usable in the reaction.\\n\",\n    \"an id column is optional for corresponding to the similarity matrix, if id is not given, use index instead.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Number of reactants is 637645\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th>SMILES</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>O=C(Cl)Oc1ccc(Cc2ccc(C(F)(F)F)cc2)cc1</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>CCc1cc(C2CCN(C(=O)OC(C)(C)C)CC2)ccc1Nc1ncc(C(F...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>CC(NC(=O)OCc1ccccc1)C(C)NC(=O)c1ccccc1O</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>OC[C@H]1NCC[C@@H]1O</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>C#CCCN1C(=O)c2ccccc2C1=O</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"   id                                             SMILES\\n\",\n       \"0   0              O=C(Cl)Oc1ccc(Cc2ccc(C(F)(F)F)cc2)cc1\\n\",\n       \"1   1  CCc1cc(C2CCN(C(=O)OC(C)(C)C)CC2)ccc1Nc1ncc(C(F...\\n\",\n       \"2   2            CC(NC(=O)OCc1ccccc1)C(C)NC(=O)c1ccccc1O\\n\",\n       \"3   3                                OC[C@H]1NCC[C@@H]1O\\n\",\n       \"4   4                           C#CCCN1C(=O)c2ccccc2C1=O\"\n      ]\n     },\n     \"execution_count\": 5,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"reactant_pool_path = os.path.join(assets_path,\\\"STEREO_pool_df.csv\\\")\\n\",\n    \"reactant_pool = pd.read_csv(reactant_pool_path)\\n\",\n    \"print(\\\"Number of reactants is {}\\\".format(len(reactant_pool)))\\n\",\n    \"reactant_pool.head()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### similarity matrix\\n\",\n    \"The similarity matrix is a pandas dataframe, the number of both row and column is the number of reactant in the reactant pool, each cell is the similarity between the reactant of the row's number and the column's number, so the values on the diagonal is 1.0.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"The size of similarity matrix is 637645 * 637645\\n\",\n      \"CPU times: user 7.59 s, sys: 160 ms, total: 7.75 s\\n\",\n      \"Wall time: 7.76 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"from scipy import sparse\\n\",\n    \"\\n\",\n    \"sim_matrix_path = os.path.join(assets_path,\\\"pool_sim_sparse.npz\\\")\\n\",\n    \"reactant_pool_sim = sparse.load_npz(sim_matrix_path).tocsr()\\n\",\n    \"sim_df = pd.DataFrame.sparse.from_spmatrix(reactant_pool_sim)\\n\",\n    \"print(\\\"The size of similarity matrix is {} * {}\\\".format(len(sim_df), len(list(sim_df))))\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 2min 42s, sys: 611 ms, total: 2min 43s\\n\",\n      \"Wall time: 2min 43s\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <th>5</th>\\n\",\n       \"      <th>6</th>\\n\",\n       \"      <th>7</th>\\n\",\n       \"      <th>8</th>\\n\",\n       \"      <th>9</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>637635</th>\\n\",\n       \"      <th>637636</th>\\n\",\n       \"      <th>637637</th>\\n\",\n       \"      <th>637638</th>\\n\",\n       \"      <th>637639</th>\\n\",\n       \"      <th>637640</th>\\n\",\n       \"      <th>637641</th>\\n\",\n       \"      <th>637642</th>\\n\",\n       \"      <th>637643</th>\\n\",\n       \"      <th>637644</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>5 rows × 637645 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"   0       1       2       3       4       5       6       7       8       \\\\\\n\",\n       \"0     1.0     0.0     0.0     0.0     0.0     0.0     0.0     0.0     0.0   \\n\",\n       \"1     0.0     1.0     0.0     0.0     0.0     0.0     0.0     0.0     0.0   \\n\",\n       \"2     0.0     0.0     1.0     0.0     0.0     0.0     0.0     0.0     0.0   \\n\",\n       \"3     0.0     0.0     0.0     1.0     0.0     0.0     0.0     0.0     0.0   \\n\",\n       \"4     0.0     0.0     0.0     0.0     1.0     0.0     0.0     0.0     0.0   \\n\",\n       \"\\n\",\n       \"   9       ...  637635  637636  637637  637638  637639  637640  637641  \\\\\\n\",\n       \"0     0.0  ...     0.0     0.0     0.0     0.0     0.0     0.0     0.0   \\n\",\n       \"1     0.0  ...     0.0     0.0     0.0     0.0     0.0     0.0     0.0   \\n\",\n       \"2     0.0  ...     0.0     0.0     0.0     0.0     0.0     0.0     0.0   \\n\",\n       \"3     0.0  ...     0.0     0.0     0.0     0.0     0.0     0.0     0.0   \\n\",\n       \"4     0.0  ...     0.0     0.0     0.0     0.0     0.0     0.0     0.0   \\n\",\n       \"\\n\",\n       \"   637642  637643  637644  \\n\",\n       \"0     0.0     0.0     0.0  \\n\",\n       \"1     0.0     0.0     0.0  \\n\",\n       \"2     0.0     0.0     0.0  \\n\",\n       \"3     0.0     0.0     0.0  \\n\",\n       \"4     0.0     0.0     0.0  \\n\",\n       \"\\n\",\n       \"[5 rows x 637645 columns]\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"sim_df.head()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### initial data\\n\",\n    \"The sample data for SMC is a pandas dataframe which contains the following columns: reactant id, reactant SMILES, product SMILES.\\n\",\n    \"In the SMC loop, the description of sample product will be cauculated firstly, then, the resample of reactant id will be performed. So, the initial data should at least contain the product and the reactant id.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>reactant_idx</th>\\n\",\n       \"      <th>reactant_smiles</th>\\n\",\n       \"      <th>product_smiles</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>[47625, 376787]</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>CN(C)C=Cc1ccc([N+](=O)[O-])c(F)c1</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>[197650, 50311]</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>CCCNC(C)(C)C(C)C</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>[251279]</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>COc1c2c(cc3c(C)cc(=O)oc13)CC(C)O2</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>[447145]</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>CCn1cnc2cc(Br)cc(O)c21</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>[612438, 46951]</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>Cc1ccc2[nH]cc(C(=O)C(=O)Cl)c2c1</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"      reactant_idx  reactant_smiles                     product_smiles\\n\",\n       \"0  [47625, 376787]              NaN  CN(C)C=Cc1ccc([N+](=O)[O-])c(F)c1\\n\",\n       \"1  [197650, 50311]              NaN                   CCCNC(C)(C)C(C)C\\n\",\n       \"2         [251279]              NaN  COc1c2c(cc3c(C)cc(=O)oc13)CC(C)O2\\n\",\n       \"3         [447145]              NaN             CCn1cnc2cc(Br)cc(O)c21\\n\",\n       \"4  [612438, 46951]              NaN    Cc1ccc2[nH]cc(C(=O)C(=O)Cl)c2c1\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"sample_size = 100\\n\",\n    \"data_sample = data.query(\\\"XLogP<3 & TPSA<50\\\").sample(n=sample_size).reset_index(drop=True)\\n\",\n    \"init_samples = pd.DataFrame({'reactant_idx': [],\\n\",\n    \"                       'reactant_smiles': [],\\n\",\n    \"                       'product_smiles': []})\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"init_samples['reactant_idx'] = [[int(a) for a in idx_str.split('.')] for idx_str in data_sample['reactant_index']]\\n\",\n    \"init_samples['product_smiles'] = data_sample['product']\\n\",\n    \"init_samples.head()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### estimator\\n\",\n    \"#### featurizer\\n\",\n    \"featurizer calculate the fingerprint of the sample product. We currently support all fingerprints and descriptors in the RDKit (Mordred will be added soon). In this tutorial, we only use the ECFP + MACCS in RDKit. \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 876 ms, sys: 476 ms, total: 1.35 s\\n\",\n      \"Wall time: 3.07 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"from xenonpy.descriptor import Fingerprints\\n\",\n    \"product_descriptor = Fingerprints(featurizers=['ECFP', 'MACCS'], input_type='smiles', on_errors='nan', target_col='product_smiles')\\n\",\n    \"samples_feature = product_descriptor.transform(init_samples)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>maccs:0</th>\\n\",\n       \"      <th>maccs:1</th>\\n\",\n       \"      <th>maccs:2</th>\\n\",\n       \"      <th>maccs:3</th>\\n\",\n       \"      <th>maccs:4</th>\\n\",\n       \"      <th>maccs:5</th>\\n\",\n       \"      <th>maccs:6</th>\\n\",\n       \"      <th>maccs:7</th>\\n\",\n       \"      <th>maccs:8</th>\\n\",\n       \"      <th>maccs:9</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>ecfp6:2038</th>\\n\",\n       \"      <th>ecfp6:2039</th>\\n\",\n       \"      <th>ecfp6:2040</th>\\n\",\n       \"      <th>ecfp6:2041</th>\\n\",\n       \"      <th>ecfp6:2042</th>\\n\",\n       \"      <th>ecfp6:2043</th>\\n\",\n       \"      <th>ecfp6:2044</th>\\n\",\n       \"      <th>ecfp6:2045</th>\\n\",\n       \"      <th>ecfp6:2046</th>\\n\",\n       \"      <th>ecfp6:2047</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>0</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>5 rows × 2215 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"   maccs:0  maccs:1  maccs:2  maccs:3  maccs:4  maccs:5  maccs:6  maccs:7  \\\\\\n\",\n       \"0        0        0        0        0        0        0        0        0   \\n\",\n       \"1        0        0        0        0        0        0        0        0   \\n\",\n       \"2        0        0        0        0        0        0        0        0   \\n\",\n       \"3        0        0        0        0        0        0        0        0   \\n\",\n       \"4        0        0        0        0        0        0        0        0   \\n\",\n       \"\\n\",\n       \"   maccs:8  maccs:9  ...  ecfp6:2038  ecfp6:2039  ecfp6:2040  ecfp6:2041  \\\\\\n\",\n       \"0        0        0  ...           0           0           0           1   \\n\",\n       \"1        0        0  ...           0           0           0           0   \\n\",\n       \"2        0        0  ...           0           0           0           0   \\n\",\n       \"3        0        0  ...           0           0           0           0   \\n\",\n       \"4        0        0  ...           0           0           0           0   \\n\",\n       \"\\n\",\n       \"   ecfp6:2042  ecfp6:2043  ecfp6:2044  ecfp6:2045  ecfp6:2046  ecfp6:2047  \\n\",\n       \"0           0           0           0           0           0           0  \\n\",\n       \"1           0           0           0           0           0           0  \\n\",\n       \"2           0           0           0           0           0           0  \\n\",\n       \"3           0           0           0           0           0           0  \\n\",\n       \"4           0           0           0           0           0           0  \\n\",\n       \"\\n\",\n       \"[5 rows x 2215 columns]\"\n      ]\n     },\n     \"execution_count\": 10,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"samples_feature.head()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### forward model\\n\",\n    \"Forward model compute the likelihood of the product's property falling into the target likelihood.\\\\\\n\",\n    \"In this tutorial, we train two regerssion models for the two property respectively.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 4min 6s, sys: 3.95 s, total: 4min 10s\\n\",\n      \"Wall time: 1min 51s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"from sklearn.linear_model import BayesianRidge\\n\",\n    \"from sklearn.model_selection import train_test_split\\n\",\n    \"\\n\",\n    \"n_train = 100000\\n\",\n    \"training_df = data.iloc[:n_train]\\n\",\n    \"trainer_descriptor = Fingerprints(featurizers=['ECFP', 'MACCS'], input_type='smiles', on_errors='nan', target_col='product')\\n\",\n    \"training_fp = trainer_descriptor.transform(training_df)\\n\",\n    \"\\n\",\n    \"training_XLogP = training_df[\\\"XLogP\\\"].tolist()\\n\",\n    \"training_TPSA = training_df[\\\"TPSA\\\"].tolist()\\n\",\n    \"model_XLogP = BayesianRidge()\\n\",\n    \"model_TPSA = BayesianRidge()\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"X_train_XLogP, X_test_XLogP, y_train_XLogP, y_test_XLogP = train_test_split(training_fp, training_XLogP, test_size=0.25, random_state=42)\\n\",\n    \"X_train_TPSA, X_test_TPSA, y_train_TPSA, y_test_TPSA = train_test_split(training_fp, training_TPSA, test_size=0.25, random_state=42)\\n\",\n    \"\\n\",\n    \"model_XLogP.fit(X_train_XLogP, y_train_XLogP)\\n\",\n    \"model_TPSA.fit(X_train_TPSA, y_train_TPSA)\\n\",\n    \"\\n\",\n    \"y_train_XLogP_pred = model_XLogP.predict(X_train_XLogP)\\n\",\n    \"y_train_TPSA_pred = model_TPSA.predict(X_train_TPSA)\\n\",\n    \"y_test_XLogP_pred = model_XLogP.predict(X_test_XLogP)\\n\",\n    \"y_test_TPSA_pred = model_TPSA.predict(X_test_TPSA)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[<matplotlib.lines.Line2D at 0x7fb8e6358410>]\"\n      ]\n     },\n     \"execution_count\": 12,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 360x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"import numpy as np\\n\",\n    \"\\n\",\n    \"y_all = training_XLogP\\n\",\n    \"y_train_true = y_train_XLogP\\n\",\n    \"y_train_pred = y_train_XLogP_pred\\n\",\n    \"y_test_true = y_test_XLogP\\n\",\n    \"y_test_pred = y_test_XLogP_pred\\n\",\n    \"\\n\",\n    \"y_min = min(y_all)*0.95\\n\",\n    \"y_max = max(y_all)*1.05\\n\",\n    \"y_diff = y_max - y_min\\n\",\n    \"\\n\",\n    \"plt.figure(figsize=(5,5))\\n\",\n    \"plt.scatter(y_train_true, y_train_pred, c='b', alpha=0.1, label='train')\\n\",\n    \"plt.scatter(y_test_true, y_test_pred, c='r', alpha=0.2, label='test')\\n\",\n    \"plt.text(y_min+y_diff*0.7,y_min+y_diff*0.05,'MAE: {:5.2f}'.format(np.mean(np.abs(y_test_true - y_test_pred)),fontsize=12))\\n\",\n    \"plt.xlim(y_min,y_max)\\n\",\n    \"plt.ylim(y_min,y_max)\\n\",\n    \"plt.legend(loc='upper left')\\n\",\n    \"plt.xlabel('Observation')\\n\",\n    \"plt.ylabel('Prediction')\\n\",\n    \"plt.title('Property: XLogP')\\n\",\n    \"plt.plot([y_min,y_max],[y_min,y_max],ls=\\\"--\\\",c='k')\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 13,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[<matplotlib.lines.Line2D at 0x7fb8e5432150>]\"\n      ]\n     },\n     \"execution_count\": 13,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 360x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"y_all = training_TPSA\\n\",\n    \"y_train_true = y_train_TPSA\\n\",\n    \"y_train_pred = y_train_TPSA_pred\\n\",\n    \"y_test_true = y_test_TPSA\\n\",\n    \"y_test_pred = y_test_TPSA_pred\\n\",\n    \"\\n\",\n    \"y_min = min(y_all)*0.95\\n\",\n    \"y_max = max(y_all)*1.05\\n\",\n    \"y_diff = y_max - y_min\\n\",\n    \"\\n\",\n    \"plt.figure(figsize=(5,5))\\n\",\n    \"plt.scatter(y_train_true, y_train_pred, c='b', alpha=0.1, label='train')\\n\",\n    \"plt.scatter(y_test_true, y_test_pred, c='r', alpha=0.2, label='test')\\n\",\n    \"plt.text(y_min+y_diff*0.7,y_min+y_diff*0.05,'MAE: {:5.2f}'.format(np.mean(np.abs(y_test_true - y_test_pred)),fontsize=12))\\n\",\n    \"plt.xlim(y_min,y_max)\\n\",\n    \"plt.ylim(y_min,y_max)\\n\",\n    \"plt.legend(loc='upper left')\\n\",\n    \"plt.xlabel('Observation')\\n\",\n    \"plt.ylabel('Prediction')\\n\",\n    \"plt.title('Property: TPSA')\\n\",\n    \"plt.plot([y_min,y_max],[y_min,y_max],ls=\\\"--\\\",c='k')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Merge the featurizer and forward model into the estimator(likelihood) module, we get the first block of ISMD.\\\\\\n\",\n    \"In this tutorial, we use GaussianLogLikelihood as the the estimator.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>XLogP</th>\\n\",\n       \"      <th>TPSA</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>-6.719424</td>\\n\",\n       \"      <td>-0.349369</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>-3.880918</td>\\n\",\n       \"      <td>-6.579659</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>-3.827795</td>\\n\",\n       \"      <td>-0.386489</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>-4.553353</td>\\n\",\n       \"      <td>-1.673164</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>-3.335443</td>\\n\",\n       \"      <td>-1.424420</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"      XLogP      TPSA\\n\",\n       \"0 -6.719424 -0.349369\\n\",\n       \"1 -3.880918 -6.579659\\n\",\n       \"2 -3.827795 -0.386489\\n\",\n       \"3 -4.553353 -1.673164\\n\",\n       \"4 -3.335443 -1.424420\"\n      ]\n     },\n     \"execution_count\": 14,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.inverse.iqspr import GaussianLogLikelihood\\n\",\n    \"\\n\",\n    \"## set property target\\n\",\n    \"prop = ['XLogP', 'TPSA']\\n\",\n    \"target_range = {'XLogP': (5, 10), 'TPSA': (50, 100)}\\n\",\n    \"likelihood_calculator = GaussianLogLikelihood(descriptor=product_descriptor, targets=target_range, XLogP=model_XLogP, TPSA=model_TPSA)\\n\",\n    \"samples_likelihood = likelihood_calculator(init_samples)\\n\",\n    \"samples_likelihood.head()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 3. modifier\\n\",\n    \"#### proposal\\n\",\n    \"Proposal substitute a randomly selected reactant by a similar one.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 1.03 s, sys: 61.8 ms, total: 1.09 s\\n\",\n      \"Wall time: 136 ms\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"from xenonpy.contrib.ismd import ReactantPool\\n\",\n    \"from xenonpy.contrib.ismd import load_reactor\\n\",\n    \"\\n\",\n    \"model_path = os.path.join(assets_path,'STEREO_separated_augm_model_average_20.pt')\\n\",\n    \"mol_reactor = load_reactor(model_path=model_path, device_id=-1)\\n\",\n    \"mol_pool = ReactantPool(pool_df=reactant_pool, sim_df=sim_df, reactor=mol_reactor)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"old idx                   ---> new idx                  \\n\",\n      \"[47625, 376787]           ---> [623953, 376787]         \\n\",\n      \"[197650, 50311]           ---> [502976, 50311]          \\n\",\n      \"[251279]                  ---> [202607]                 \\n\",\n      \"[447145]                  ---> [535337]                 \\n\",\n      \"[612438, 46951]           ---> [612438, 611055]         \\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"old_list = [str(r) for r in init_samples[\\\"reactant_idx\\\"][:5]]\\n\",\n    \"new_list = [mol_pool.single_proposal(reactant) for reactant in init_samples[\\\"reactant_idx\\\"]]\\n\",\n    \"init_samples[\\\"reactant_idx\\\"] = new_list\\n\",\n    \"print(\\\"{:25} ---> {:25}\\\".format(\\\"old idx\\\",\\\"new idx\\\"))\\n\",\n    \"for o,n in zip(old_list[:5], new_list[:5]):\\n\",\n    \"    print(\\\"{:25} ---> {:25}\\\".format(str(o),str(n)))\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### lookup pool\\n\",\n    \"By looking up the reactant pool, convert reactant id to SMILES.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 17,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"reactant idx              ---> reactant SMILES          \\n\",\n      \"[623953, 376787]          ---> CCN(C)C(OC)OC.Cc1ccc([N+](=O)[O-])c(F)c1\\n\",\n      \"[502976, 50311]           ---> CC(C)C(N)C(C)(C)O.CCC#N  \\n\",\n      \"[202607]                  ---> C=CCc1cc2ccc(=O)oc2c(OC)c1O\\n\",\n      \"[535337]                  ---> Brc1cc(OCc2ccccc2)c2ccnn2c1\\n\",\n      \"[612438, 611055]          ---> Cc1ccc2[nH]ccc2c1.CC(=O)C(=O)Cl\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"init_samples[\\\"reactant_smiles\\\"] = [mol_pool.single_index2reactant(id_str) for id_str in init_samples[\\\"reactant_idx\\\"]]\\n\",\n    \"print(\\\"{:25} ---> {:25}\\\".format(\\\"reactant idx\\\",\\\"reactant SMILES\\\"))\\n\",\n    \"for o,n in zip(init_samples[\\\"reactant_idx\\\"][:5], init_samples[\\\"reactant_smiles\\\"][:5]):\\n\",\n    \"    print(\\\"{:25} ---> {:25}\\\".format(str(o),str(n)))\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### reactor\\n\",\n    \"The reactor can predict the product given the reactant set.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>reactant_idx</th>\\n\",\n       \"      <th>reactant_smiles</th>\\n\",\n       \"      <th>product_smiles</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>[623953, 376787]</td>\\n\",\n       \"      <td>CCN(C)C(OC)OC.Cc1ccc([N+](=O)[O-])c(F)c1</td>\\n\",\n       \"      <td>CCN(C)C=Cc1ccc([N+](=O)[O-])c(F)c1</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>[502976, 50311]</td>\\n\",\n       \"      <td>CC(C)C(N)C(C)(C)O.CCC#N</td>\\n\",\n       \"      <td>CCC(=NC(C(C)C)C(C)(C)O)NCCC#N</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>[202607]</td>\\n\",\n       \"      <td>C=CCc1cc2ccc(=O)oc2c(OC)c1O</td>\\n\",\n       \"      <td>C=CCc1cc2ccc(=O)oc2c(OC)c1OC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>[535337]</td>\\n\",\n       \"      <td>Brc1cc(OCc2ccccc2)c2ccnn2c1</td>\\n\",\n       \"      <td>Brc1cc(OCc2ccccc2)c2ccnn2c1-c1cc(OCc2ccccc2)c2...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>[612438, 611055]</td>\\n\",\n       \"      <td>Cc1ccc2[nH]ccc2c1.CC(=O)C(=O)Cl</td>\\n\",\n       \"      <td>CC(=O)C(=O)c1c[nH]c2ccc(C)cc12</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"       reactant_idx                           reactant_smiles  \\\\\\n\",\n       \"0  [623953, 376787]  CCN(C)C(OC)OC.Cc1ccc([N+](=O)[O-])c(F)c1   \\n\",\n       \"1   [502976, 50311]                   CC(C)C(N)C(C)(C)O.CCC#N   \\n\",\n       \"2          [202607]               C=CCc1cc2ccc(=O)oc2c(OC)c1O   \\n\",\n       \"3          [535337]               Brc1cc(OCc2ccccc2)c2ccnn2c1   \\n\",\n       \"4  [612438, 611055]           Cc1ccc2[nH]ccc2c1.CC(=O)C(=O)Cl   \\n\",\n       \"\\n\",\n       \"                                      product_smiles  \\n\",\n       \"0                 CCN(C)C=Cc1ccc([N+](=O)[O-])c(F)c1  \\n\",\n       \"1                      CCC(=NC(C(C)C)C(C)(C)O)NCCC#N  \\n\",\n       \"2                       C=CCc1cc2ccc(=O)oc2c(OC)c1OC  \\n\",\n       \"3  Brc1cc(OCc2ccccc2)c2ccnn2c1-c1cc(OCc2ccccc2)c2...  \\n\",\n       \"4                     CC(=O)C(=O)c1c[nH]c2ccc(C)cc12  \"\n      ]\n     },\n     \"execution_count\": 18,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"init_samples[\\\"product_smiles\\\"] = mol_pool._reactor.react(init_samples[\\\"reactant_smiles\\\"])\\n\",\n    \"init_samples.head()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 4. a complete ismd run\\n\",\n    \"In this tutorial, we use IQSPR4DF as the SMC framework, which is usable for pandas dataframe. Merge the estimator and the modifier into the IQSPR4DF module, then, a complete implementation is ready to run.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 19,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.inverse.iqspr import IQSPR4DF\\n\",\n    \"\\n\",\n    \"ISMD = IQSPR4DF(estimator=likelihood_calculator, modifier=mol_pool, sample_col='product_smiles')\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 20,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"array([0.01      , 0.02      , 0.03      , 0.04      , 0.05      ,\\n\",\n       \"       0.06      , 0.07      , 0.08      , 0.09      , 0.1       ,\\n\",\n       \"       0.11      , 0.12      , 0.13      , 0.14      , 0.15      ,\\n\",\n       \"       0.16      , 0.17      , 0.18      , 0.19      , 0.2       ,\\n\",\n       \"       0.21      , 0.23111111, 0.25222222, 0.27333333, 0.29444444,\\n\",\n       \"       0.31555556, 0.33666667, 0.35777778, 0.37888889, 0.4       ,\\n\",\n       \"       0.4       , 0.46666667, 0.53333333, 0.6       , 0.66666667,\\n\",\n       \"       0.73333333, 0.8       , 0.86666667, 0.93333333, 1.        ,\\n\",\n       \"       1.        , 1.        , 1.        , 1.        , 1.        ,\\n\",\n       \"       1.        , 1.        , 1.        , 1.        , 1.        ])\"\n      ]\n     },\n     \"execution_count\": 20,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"import numpy as np\\n\",\n    \"\\n\",\n    \"beta = np.hstack([np.linspace(0.01,0.2,20),np.linspace(0.21,0.4,10),np.linspace(0.4,1,10),np.linspace(1,1,10)])\\n\",\n    \"beta\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 21,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 52min 9s, sys: 1min 6s, total: 53min 15s\\n\",\n      \"Wall time: 7min 53s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"np.random.seed(201906) # fix the random seed\\n\",\n    \"# main loop of iQSPR\\n\",\n    \"iqspr_samples1, iqspr_loglike1, iqspr_prob1, iqspr_freq1 = [], [], [], []\\n\",\n    \"for s, ll, p, freq in ISMD(init_samples, beta, yield_lpf=True):\\n\",\n    \"    iqspr_samples1.append(s)\\n\",\n    \"    iqspr_loglike1.append(ll)\\n\",\n    \"    iqspr_prob1.append(p)\\n\",\n    \"    iqspr_freq1.append(freq)\\n\",\n    \"# record all outputs\\n\",\n    \"iqspr_results_reorder = {\\n\",\n    \"    \\\"samples\\\": iqspr_samples1,\\n\",\n    \"    \\\"loglike\\\": iqspr_loglike1,\\n\",\n    \"    \\\"prob\\\": iqspr_prob1,\\n\",\n    \"    \\\"freq\\\": iqspr_freq1,\\n\",\n    \"    \\\"beta\\\": beta\\n\",\n    \"}\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"By looking at the likelihood of each steps, we can say that after few steps, most of the particles sampled have high likelihood.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 22,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x360 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"import matplotlib.pyplot as plt\\n\",\n    \"\\n\",\n    \"iqspr_results_reorder = {\\n\",\n    \"    \\\"samples\\\": iqspr_samples1,\\n\",\n    \"    \\\"loglike\\\": iqspr_loglike1,\\n\",\n    \"    \\\"prob\\\": iqspr_prob1,\\n\",\n    \"    \\\"freq\\\": iqspr_freq1,\\n\",\n    \"    \\\"beta\\\": beta\\n\",\n    \"}\\n\",\n    \"# set up the min and max boundary for the plots\\n\",\n    \"tmp_list = [x.sum(axis = 1, skipna = True).values for x in iqspr_results_reorder[\\\"loglike\\\"]]\\n\",\n    \"flat_list = np.asarray([item for sublist in tmp_list for item in sublist])\\n\",\n    \"y_max, y_min = max(flat_list), min(flat_list)\\n\",\n    \"\\n\",\n    \"plt.figure(figsize=(10,5))\\n\",\n    \"plt.xlim(0,len(iqspr_results_reorder[\\\"loglike\\\"]))\\n\",\n    \"plt.ylim(-30,y_max)\\n\",\n    \"plt.xlabel('Step')\\n\",\n    \"plt.ylabel('Log-likelihood')\\n\",\n    \"for i, ll in enumerate(tmp_list):\\n\",\n    \"    plt.scatter([i]*len(ll), ll ,s=10, c='b', alpha=0.2)\\n\",\n    \"plt.show()\\n\",\n    \"#plt.savefig('iqspr_loglike_reorder.png',dpi = 500)\\n\",\n    \"#plt.close()\\n\",\n    \"\\n\",\n    \"y_max, y_min = np.exp(y_max), np.exp(y_min)\\n\",\n    \"plt.figure(figsize=(10,5))\\n\",\n    \"plt.xlim(0,len(iqspr_results_reorder[\\\"loglike\\\"]))\\n\",\n    \"plt.ylim(y_min,y_max)\\n\",\n    \"plt.xlabel('Step')\\n\",\n    \"plt.ylabel('Likelihood')\\n\",\n    \"for i, ll in enumerate(tmp_list):\\n\",\n    \"    plt.scatter([i]*len(ll), np.exp(ll) ,s=10, c='b', alpha=0.2)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.9\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "samples/kernel_neural_network.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"ongoing-parameter\",\n   \"metadata\": {},\n   \"source\": [\n    \"This Jupyter notebook contains a set of sample codes that are necessary for obtaining the calculation results of three different datasets as described in the paper titled \\\"Functional Output Regression for Machine Learning in Materials Science\\\". Readers can use the code to perform model training and test with full hyperparameter search, which will take a long time. Instead, readers can also test the performance of the best performing models that are downloadable from our Github repository. \\n\",\n    \"\\n\",\n    \"We provide three pre-trained models for each dataset.\\n\",\n    \"- Dataset 1: https://github.com/yoshida-lab/XenonPy/releases/download/v0.6.3/pretrained_models.zip\\n\",\n    \"- Dataset 2: https://github.com/yoshida-lab/XenonPy/releases/download/v0.6.3/dataset2.zip\\n\",\n    \"- USGS: https://github.com/yoshida-lab/XenonPy/releases/download/v0.6.3/USGS.zip\\n\",\n    \"\\n\",\n    \"Please update the variable \\\"model_dir\\\" in the \\\"User parameter setting\\\" section accordingly.\\n\",\n    \"\\n\",\n    \"To obtain the datasets used in this study, please access the following references.\\n\",\n    \"- For Dataset I and Dataset II:\\n\",\n    \"Urbina et al. (2021) UV-adVISor: Attention-Based Recurrent Neural Networks to Predict UV–Vis Spectra. Analytical Chemistry, 93(48), 16076-16085.\\n\",\n    \"(https://pubs.acs.org/doi/10.1021/acs.analchem.1c03741)\\n\",\n    \"- USGS:\\n\",\n    \"Kokaly et al. (2017) USGS Spectral Library Version 7 Data: U.S. Geological Survey data release (https://dx.doi.org/10.5066/F7RR1WDJ)\\n\",\n    \"\\n\",\n    \"For Dataset I and II, please directly pick the files \\\"Datasets I, II, III spectra and SMILES/Dataset_I.csv\\\" and \\\"Datasets I, II, III spectra and SMILES/Dataset_II.csv\\\" in the downloaded zip file, respectively, as the input csv files. For the USGS dataset, please process the downloaded data using \\\"process_dataset_usgs.ipynb\\\" (https://github.com/yoshida-lab/XenonPy/blob/master/samples/process_dataset_usgs.ipynb) to obtain the compact csv files used in our study. A file named \\\"Dataset_USGS.csv\\\" shall be produced after running the codes in the notebook. If there is any trouble in processing the data, please contact us for help.\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"id\": \"rational-throw\",\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"RDKit WARNING: [23:24:15] Enabling RDKit 2019.09.1 jupyter extensions\\n\",\n      \"[23:24:15] Enabling RDKit 2019.09.1 jupyter extensions\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# python packages used in the sample codes\\n\",\n    \"\\n\",\n    \"from pathlib import Path\\n\",\n    \"\\n\",\n    \"import pandas as pd\\n\",\n    \"import numpy as np\\n\",\n    \"import matplotlib.pyplot as plt\\n\",\n    \"\\n\",\n    \"import torch\\n\",\n    \"import torch.nn as nn\\n\",\n    \"import torch.utils.data\\n\",\n    \"from torch import optim\\n\",\n    \"\\n\",\n    \"from rdkit.Chem.Fingerprints import FingerprintMols\\n\",\n    \"from rdkit.Avalon import pyAvalonTools\\n\",\n    \"from rdkit.Chem import Draw\\n\",\n    \"from rdkit import rdBase, Chem, DataStructs\\n\",\n    \"from rdkit.Chem import AllChem\\n\",\n    \"from rdkit.Chem.AtomPairs import Pairs, Torsions\\n\",\n    \"\\n\",\n    \"from sklearn.metrics import mean_squared_error\\n\",\n    \"from sklearn.metrics import r2_score\\n\",\n    \"from sklearn.metrics import mean_absolute_error\\n\",\n    \"from sklearn.model_selection import train_test_split\\n\",\n    \"\\n\",\n    \"# user-friendly print out\\n\",\n    \"from IPython.core.interactiveshell import InteractiveShell\\n\",\n    \"InteractiveShell.ast_node_interactivity = \\\"all\\\"\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"representative-hepatitis\",\n   \"metadata\": {},\n   \"source\": [\n    \"# Preparation\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"hearing-resource\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### Utility function: define RBFKernel class to define the radial basis function kernel that will be used in our models\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"id\": \"horizontal-province\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import numpy as np\\n\",\n    \"\\n\",\n    \"from typing import Union, Sequence, Callable, Tuple\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"class RBFKernel():\\n\",\n    \"    def __init__(self, sigmas_squared: Union[float, int, np.ndarray, Sequence], hight=10, *, dtype='float32'):\\n\",\n    \"        \\\"\\\"\\\"\\n\",\n    \"        Radial Basis Function (RBF) kernel function.\\n\",\n    \"        Ref: https://en.wikipedia.org/wiki/Radial_basis_function_kernel\\n\",\n    \"\\n\",\n    \"        Parameters\\n\",\n    \"        ----------\\n\",\n    \"        sigmas:\\n\",\n    \"            The squared standard deviations (SD).\\n\",\n    \"            Can be a single number or a 1d array-like object.\\n\",\n    \"        x_i: np.ndarray\\n\",\n    \"            Should be a 1d array.\\n\",\n    \"        x_j: np.ndarray\\n\",\n    \"            Should be a 1d array.\\n\",\n    \"\\n\",\n    \"        Returns\\n\",\n    \"        -------\\n\",\n    \"        np.ndarray\\n\",\n    \"            Distribution under RBF kernel.\\n\",\n    \"\\n\",\n    \"        Raises\\n\",\n    \"        ------\\n\",\n    \"        ValueError\\n\",\n    \"            Raise error if sigmas has wrong dimension.\\n\",\n    \"        \\\"\\\"\\\"\\n\",\n    \"        sigmas_squared = np.asarray(sigmas_squared)\\n\",\n    \"        if sigmas_squared.ndim == 0:\\n\",\n    \"            sigmas_squared = sigmas_squared[np.newaxis]\\n\",\n    \"        if sigmas_squared.ndim != 1:\\n\",\n    \"            raise ValueError('parameter `sigmas_squared` must be a array-like object which has dimension 1')\\n\",\n    \"        self._sigmas_squared = sigmas_squared\\n\",\n    \"        self.hight = hight\\n\",\n    \"        self.dtype = dtype\\n\",\n    \"        \\n\",\n    \"    @property\\n\",\n    \"    def sigmas_squared(self):\\n\",\n    \"        return np.copy(self._sigmas_squared)\\n\",\n    \"    \\n\",\n    \"    def __call__(self, x_i: np.ndarray, x_j: Union[np.ndarray, int, float]):\\n\",\n    \"        # K(x_i, x_j) = exp(-||x_i - x_j||^2 / (2 * sigma^2))\\n\",\n    \"        p1 = np.power(np.expand_dims(x_i, axis=x_i.ndim) - x_j, 2)\\n\",\n    \"        p2 = self._sigmas_squared * 2\\n\",\n    \"        dists = self.hight * np.exp(-np.expand_dims(p1, axis=p1.ndim) / p2)\\n\",\n    \"\\n\",\n    \"        if dists.shape[2] == 1:\\n\",\n    \"            return dists[:, :, 0].astype(self.dtype)\\n\",\n    \"        return dists.astype(self.dtype)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"canadian-procurement\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### Model definition: define KernelNet class to be the neural network based kernel function model\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"id\": \"caroline-final\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.model import SequentialLinear\\n\",\n    \"\\n\",\n    \"# model parameter initialization\\n\",\n    \"@torch.no_grad()\\n\",\n    \"def weights_init(m):\\n\",\n    \"    if isinstance(m, nn.Linear):\\n\",\n    \"        nn.init.xavier_normal_(m.weight)\\n\",\n    \"        nn.init.constant_(m.bias, 0)\\n\",\n    \"    elif isinstance(m, nn.BatchNorm1d):\\n\",\n    \"        nn.init.normal_(m.weight, 1.0, 0.02)\\n\",\n    \"        nn.init.constant_(m.bias, 0)\\n\",\n    \"\\n\",\n    \"        \\n\",\n    \"class KernelNet(nn.Module):\\n\",\n    \"    def __init__(self, *,\\n\",\n    \"                 n_neurons=(1024, 896, 512, 256, 128),\\n\",\n    \"                 activation_func=nn.LeakyReLU(0.2, inplace=True),\\n\",\n    \"                 kernel_grids: Union[int, np.ndarray] = 128,\\n\",\n    \"                 wavelength_points: Union[int, np.ndarray] =181,\\n\",\n    \"                 kernel_func=RBFKernel(sigmas_squared=0.05, hight=1),\\n\",\n    \"                ):\\n\",\n    \"        super().__init__()\\n\",\n    \"\\n\",\n    \"        # initializing fixed params (not updated through training)\\n\",\n    \"        if isinstance(kernel_grids, int):\\n\",\n    \"            kernel_grids = np.linspace(0, 1, kernel_grids)\\n\",\n    \"        if isinstance(kernel_grids, np.ndarray):\\n\",\n    \"            self.kernel_grids = kernel_grids\\n\",\n    \"        else:\\n\",\n    \"            raise ValueError('kernel_grids error!')\\n\",\n    \"        \\n\",\n    \"        if isinstance(wavelength_points, int):\\n\",\n    \"            wavelength_points = np.linspace(0, 1, wavelength_points)\\n\",\n    \"        if isinstance(wavelength_points, np.ndarray):\\n\",\n    \"            self.wavelength_points = wavelength_points\\n\",\n    \"        else:\\n\",\n    \"            raise ValueError('wavelength_points error!')\\n\",\n    \"        \\n\",\n    \"        # fully connected layers\\n\",\n    \"        self.fc_layers = SequentialLinear(\\n\",\n    \"            in_features=n_neurons[0], out_features=n_neurons[-1], h_neurons=n_neurons[1:-1], h_activation_funcs=activation_func\\n\",\n    \"        )\\n\",\n    \"        \\n\",\n    \"        # baseline parameters\\n\",\n    \"        self.mu = torch.nn.Parameter(torch.zeros(wavelength_points.size))\\n\",\n    \"        \\n\",\n    \"        # kernel\\n\",\n    \"        self.kernel = torch.from_numpy(\\n\",\n    \"            kernel_func(self.kernel_grids, self.wavelength_points)\\n\",\n    \"        )\\n\",\n    \"        \\n\",\n    \"    def to(self, *arg, **kwarg):\\n\",\n    \"        self.kernel = self.kernel.to(*arg, **kwarg)\\n\",\n    \"        return super().to(*arg, **kwarg)\\n\",\n    \"\\n\",\n    \"    def forward(self, fingerprint_input):\\n\",\n    \"        x = self.fc_layers(fingerprint_input)\\n\",\n    \"        x = x.view(x.size(0), self.kernel_grids.size, -1) \\n\",\n    \"        x = x * self.kernel\\n\",\n    \"        x = torch.sum(x, dim=1)\\n\",\n    \"        x = self.mu + x\\n\",\n    \"        return x\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"85ac5ce3-c56c-4aff-84c7-8053095f70ee\",\n   \"metadata\": {},\n   \"source\": [\n    \"# User parameter setting\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"id\": \"0d814c7d-a2ea-4f54-a2d7-e4d26b2edac2\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# Perform best case only or not: True - best model only; False - all hyperparameter search\\n\",\n    \"best_case = True\\n\",\n    \"\\n\",\n    \"# Target dataset: 1 - Dataset I; 2 - Dataset II; 3 - USGS\\n\",\n    \"data_case = 1\\n\",\n    \"\\n\",\n    \"# Full directory of the processed data file\\n\",\n    \"data_file = \\\"Dataset_I.csv\\\"\\n\",\n    \"\\n\",\n    \"# Directory and folder name for saving all the outputs\\n\",\n    \"out_directory = \\\"spectrum_results\\\"\\n\",\n    \"\\n\",\n    \"# Directory and folder name for saving or loading of models\\n\",\n    \"if data_case == 1:\\n\",\n    \"    model_dir = 'model/dataset1'\\n\",\n    \"elif data_case == 2:\\n\",\n    \"    model_dir = 'model/dataset2'\\n\",\n    \"elif data_case == 3:\\n\",\n    \"    model_dir = 'model/usgs'\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"34310578-9373-4f64-a34e-2564fa3b5443\",\n   \"metadata\": {},\n   \"source\": [\n    \"# Main codes\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"detected-swaziland\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Loading data\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"id\": \"distant-driving\",\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"number of data: 949\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# load csv file\\n\",\n    \"input_file = pd.read_csv(data_file,sep=\\\",\\\")\\n\",\n    \"\\n\",\n    \"# Figure\\n\",\n    \"out_result = Path(out_directory)\\n\",\n    \"out_result.mkdir(exist_ok=True, parents=True)\\n\",\n    \"\\n\",\n    \"# drop \\\"OC(=O)C(=C\\\\C1=CC=[Cl]C=[Cl]1)\\\\C1=CN=CC=C1\\\" because of Explicit valence error (only relevant for Dataset I)\\n\",\n    \"input_file = input_file[input_file.SMILES != \\\"OC(=O)C(=C\\\\C1=CC=[Cl]C=[Cl]1)\\\\C1=CN=CC=C1\\\"]\\n\",\n    \"# drop data containing NAN　because of Explicit valence error (only relevant for Dataset II)\\n\",\n    \"input_file = input_file.dropna()\\n\",\n    \"\\n\",\n    \"file_smiles_spectrum = input_file.values\\n\",\n    \"smiles_list = (file_smiles_spectrum[:,1])\\n\",\n    \"spectrum_list = file_smiles_spectrum[:,2:]\\n\",\n    \"spectrum_list = np.array(spectrum_list, dtype='float32')\\n\",\n    \"\\n\",\n    \"print(\\\"number of data:\\\", len(smiles_list))\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"usual-think\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### Convert smiles to fingerprint\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"id\": \"considerable-scale\",\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"torch.Size([949, 1024])\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"torch.Size([949, 182])\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# convert smiles to mol file\\n\",\n    \"mol_list = [Chem.MolFromSmiles(s) for s in smiles_list if s is not None]\\n\",\n    \"    \\n\",\n    \"# Morgan fingerprint (ECFP) with radius=3 and 1024 bits\\n\",\n    \"fps_bit = [AllChem.GetMorganFingerprintAsBitVect(m, 3, 1024) for m in mol_list]\\n\",\n    \"fps_list = []\\n\",\n    \"for fps in fps_bit:\\n\",\n    \"    fps_arr = np.zeros((1,))\\n\",\n    \"    DataStructs.ConvertToNumpyArray(fps, fps_arr)\\n\",\n    \"    fps_list.append(fps_arr)\\n\",\n    \"fps_list = np.array(fps_list, dtype='float32')\\n\",\n    \"\\n\",\n    \"fps_list_max = np.amax(fps_list)\\n\",\n    \"fps_list_min = np.amin(fps_list)\\n\",\n    \"fps_norm = ((fps_list - fps_list_min) / (fps_list_max - fps_list_min))\\n\",\n    \"X_data = torch.from_numpy(fps_norm)\\n\",\n    \"\\n\",\n    \"# process spectrum data\\n\",\n    \"spectrum_list_max = np.amax(spectrum_list)\\n\",\n    \"spectrum_list_min = np.amin(spectrum_list)\\n\",\n    \"spectrum_norm = ((spectrum_list - spectrum_list_min) / (spectrum_list_max - spectrum_list_min))\\n\",\n    \"Y_data = torch.from_numpy(spectrum_norm)\\n\",\n    \"data_number = torch.zeros((X_data.shape[0],1))\\n\",\n    \"Y_data = torch.cat((data_number, Y_data), dim=1)\\n\",\n    \"for i in range(Y_data.shape[0]):\\n\",\n    \"    number = torch.tensor([i]) \\n\",\n    \"    Y_data[i][0] = number\\n\",\n    \"    \\n\",\n    \"# show data size\\n\",\n    \"X_data.shape\\n\",\n    \"Y_data.shape\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"listed-vessel\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Set up hyperparams\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"charming-reader\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 1. Model training parameters\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"id\": \"tutorial-hearing\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"n_epoch = 3000 # epoch\\n\",\n    \"lr = 0.0002 # learning rate\\n\",\n    \"ngpu = 2 # number of GPU\\n\",\n    \"display_interval = 100\\n\",\n    \"\\n\",\n    \"model_path = Path(model_dir)\\n\",\n    \"model_path.mkdir(exist_ok=True, parents=True)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"id\": \"varying-marking\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# use GPU if available\\n\",\n    \"device = torch.device(\\\"cuda:0\\\" if (torch.cuda.is_available() and ngpu > 0) else \\\"cpu\\\")\\n\",\n    \"\\n\",\n    \"# split train:val:test \\n\",\n    \"if data_case == 1:\\n\",\n    \"    split_size = 0.316 # DatasetI:0.316, DatasetII:0.301, USGS:0.2\\n\",\n    \"    split_val_size = 0.5 # DatasetI:0.5, DatasetII:0.488, USGS:0.5\\n\",\n    \"elif data_case == 2:\\n\",\n    \"    split_size = 0.301 # DatasetI:0.316, DatasetII:0.301, USGS:0.2\\n\",\n    \"    split_val_size = 0.488 # DatasetI:0.5, DatasetII:0.488, USGS:0.5\\n\",\n    \"elif data_case == 3:\\n\",\n    \"    split_size = 0.2 # DatasetI:0.316, DatasetII:0.301, USGS:0.2\\n\",\n    \"    split_val_size = 0.5 # DatasetI:0.5, DatasetII:0.488, USGS:0.5\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"id\": \"fbc29884-4885-4f06-bfbf-ed7bd6c7df4b\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# indexing corresponding to model parameters below\\n\",\n    \"if best_case:\\n\",\n    \"    if data_case == 1:\\n\",\n    \"        start_layer = 3\\n\",\n    \"        end_layer = 4\\n\",\n    \"        start_hyper = 7\\n\",\n    \"        end_hyper = 8\\n\",\n    \"        wavelength_points = 181\\n\",\n    \"        kernel_grids = 128\\n\",\n    \"    elif data_case == 2:\\n\",\n    \"        start_layer = 2\\n\",\n    \"        end_layer = 3\\n\",\n    \"        start_hyper = 7\\n\",\n    \"        end_hyper = 8\\n\",\n    \"        wavelength_points = 171\\n\",\n    \"        kernel_grids = 128\\n\",\n    \"    elif data_case == 3:\\n\",\n    \"        start_layer = 2\\n\",\n    \"        end_layer = 3\\n\",\n    \"        start_hyper = 6\\n\",\n    \"        end_hyper = 7\\n\",\n    \"        wavelength_points = 2151\\n\",\n    \"        kernel_grids = 256\\n\",\n    \"else:\\n\",\n    \"    start_layer = 0\\n\",\n    \"    end_layer = 4\\n\",\n    \"    start_hyper = 0\\n\",\n    \"    end_hyper = 12\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"unauthorized-smell\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 2. Model parameters\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"id\": \"sporting-intranet\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# the number of hidden layers\\n\",\n    \"if data_case == 3:\\n\",\n    \"    n_neurons = [\\n\",\n    \"        (1024, 640, 256),                 # DatasetUSGS: 1 hidden layer\\n\",\n    \"        (1024, 768, 512, 256),            # DatasetUSGS: 2 hidden layers\\n\",\n    \"        (1024, 832, 640, 448, 256),       # DatasetUSGS: 3 hidden layers\\n\",\n    \"        (1024, 873, 718, 564, 410, 256),  # DatasetUSGS: 4 hidden layers\\n\",\n    \"    ]\\n\",\n    \"else:\\n\",\n    \"    n_neurons = [\\n\",\n    \"        (1024, 512, 128),                 # DatasetI,II: 1 hidden layer\\n\",\n    \"        (1024, 512, 256, 128),            # DatasetI,II: 2 hidden layers\\n\",\n    \"        (1024, 896, 512, 256, 128),       # DatasetI,II: 3 hidden layers\\n\",\n    \"        (1024, 896, 640, 512, 256, 128),  # DatasetI,II: 4 hidden layers\\n\",\n    \"    ]\\n\",\n    \"    \\n\",\n    \"# the length and variance of RBF kernel\\n\",\n    \"kernel_hypers = (\\n\",\n    \"    [10, 0.00005], [5, 0.00005], [1, 0.00005], [0.5, 0.00005],\\n\",\n    \"    [10, 0.0005], [5, 0.0005], [1, 0.0005], [0.5, 0.0005],\\n\",\n    \"    [10, 0.00025], [5, 0.00025], [1, 0.00025], [0.5, 0.00025],\\n\",\n    \")\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"requested-egypt\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Begin model training\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"id\": \"strategic-capitol\",\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<torch._C.Generator at 0x7f9f08e9f9d0>\"\n      ]\n     },\n     \"execution_count\": 11,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# fixing random seeds for reproducing the results\\n\",\n    \"np.random.seed(0)\\n\",\n    \"torch.manual_seed(0)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"activated-recruitment\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### Train with different hyperparameters\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"id\": \"changed-marshall\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"if (data_case == 1 or data_case == 2):\\n\",\n    \"    batch_number = 50\\n\",\n    \"elif (data_case == 3):\\n\",\n    \"    batch_number = 9\\n\",\n    \"\\n\",\n    \"# repeat for different number of layers in the neural network\\n\",\n    \"for layer_number in range(start_layer, end_layer):\\n\",\n    \"    # repeat for different sigma values for the kernel\\n\",\n    \"    for hyper_number in range(start_hyper, end_hyper):\\n\",\n    \"        # repeat for three times to check sensitivity to data splitting\\n\",\n    \"        for random_number in range(3):\\n\",\n    \"            # split data with different random seed\\n\",\n    \"            X_train, X_test_val, Y_train, Y_test_val = train_test_split(X_data, Y_data, test_size=split_size, random_state=random_number) \\n\",\n    \"            X_test, X_val, Y_test, Y_val = train_test_split(X_test_val, Y_test_val, test_size=split_val_size, random_state=random_number)\\n\",\n    \"            Dataset_train = torch.utils.data.TensorDataset(X_train, Y_train)\\n\",\n    \"            \\n\",\n    \"            loader_train = torch.utils.data.DataLoader(Dataset_train, batch_size=batch_number, shuffle=True)\\n\",\n    \"            Dataset_val = torch.utils.data.TensorDataset(X_val, Y_val)\\n\",\n    \"            loader_val = torch.utils.data.DataLoader(Dataset_val, shuffle=False)\\n\",\n    \"\\n\",\n    \"            # bulid model\\n\",\n    \"            netG = KernelNet(\\n\",\n    \"                n_neurons=n_neurons[layer_number],\\n\",\n    \"                wavelength_points=wavelength_points,\\n\",\n    \"                kernel_grids=kernel_grids,\\n\",\n    \"                kernel_func=RBFKernel(\\n\",\n    \"                    sigmas_squared=kernel_hypers[hyper_number][1],\\n\",\n    \"                    hight=kernel_hypers[hyper_number][0]\\n\",\n    \"                ),\\n\",\n    \"            ).to(device)\\n\",\n    \"\\n\",\n    \"            # Handle multi-gpu if desired\\n\",\n    \"\\n\",\n    \"            # if (device.type == 'cuda') and (torch.cuda.device_count() > ngpu):\\n\",\n    \"            #     netG = nn.DataParallel(netG, device_ids=range(ngpu))            \\n\",\n    \"            netG = netG.apply(weights_init)\\n\",\n    \"\\n\",\n    \"            # setup optimizer for training model\\n\",\n    \"            regu = torch.Tensor([1]).to(device) # parameter regularization\\n\",\n    \"            criterion = nn.MSELoss()\\n\",\n    \"            optimizerG = optim.Adam(netG.parameters(), lr=lr, betas=(0.5, 0.999), weight_decay=1e-5)\\n\",\n    \"            \\n\",\n    \"            # train with fixed number of epochs\\n\",\n    \"            losses = []\\n\",\n    \"            print(f\\\"training {layer_number + 1} hidden layer model with hyper_number {hyper_number + 1} and random_number {random_number}...\\\")\\n\",\n    \"            \\n\",\n    \"            for epoch in range(n_epoch):\\n\",\n    \"                for itr, data in enumerate(loader_train):\\n\",\n    \"                    real_fps = data[0][:,:].to(device)\\n\",\n    \"                    real_spectrum = data[1][:,1:].to(device)\\n\",\n    \"                    optimizerG.zero_grad()\\n\",\n    \"\\n\",\n    \"                    pred_spectrum = netG(real_fps)\\n\",\n    \"\\n\",\n    \"                    mu_parameter = netG.mu\\n\",\n    \"                    mu_para_diff = torch.diff(mu_parameter)\\n\",\n    \"                    delta_mu = torch.sum(torch.pow((mu_para_diff),2))\\n\",\n    \"                    \\n\",\n    \"                    loss = criterion(pred_spectrum, real_spectrum[:,:]) + regu * delta_mu\\n\",\n    \"\\n\",\n    \"                    loss.backward()\\n\",\n    \"                    optimizerG.step()\\n\",\n    \"                    losses.append(loss.item())\\n\",\n    \"\\n\",\n    \"                    if epoch % display_interval == 0 and itr % display_interval == 0:\\n\",\n    \"                        print('[{}/{}][{}/{}] Loss: {:.7f} '.format(epoch + 1, n_epoch, itr + 1, len(loader_train), loss.item()))\\n\",\n    \"                        \\n\",\n    \"            # save model\\n\",\n    \"            PATH_G = '{}/generator_time{:03d}_layer{:03d}_hyper{:03d}.pth'.format(model_path, random_number, layer_number+1, hyper_number+1) \\n\",\n    \"            torch.save(netG.state_dict(), PATH_G)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"minor-disposal\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Test model performance\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"id\": \"civic-blocking\",\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<All keys matched successfully>\"\n      ]\n     },\n     \"execution_count\": 12,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<All keys matched successfully>\"\n      ]\n     },\n     \"execution_count\": 12,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<All keys matched successfully>\"\n      ]\n     },\n     \"execution_count\": 12,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"#####################\\n\",\n      \"##     output results  ##\\n\",\n      \"#####################\\n\",\n      \"KernelNet(\\n\",\n      \"  (fc_layers): SequentialLinear(\\n\",\n      \"    (layer_0): LinearLayer(\\n\",\n      \"      (linear): Linear(in_features=1024, out_features=896, bias=True)\\n\",\n      \"      (dropout): Dropout(p=0.1, inplace=False)\\n\",\n      \"      (normalizer): BatchNorm1d(896, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"      (activation): LeakyReLU(negative_slope=0.2, inplace=True)\\n\",\n      \"    )\\n\",\n      \"    (layer_1): LinearLayer(\\n\",\n      \"      (linear): Linear(in_features=896, out_features=640, bias=True)\\n\",\n      \"      (dropout): Dropout(p=0.1, inplace=False)\\n\",\n      \"      (normalizer): BatchNorm1d(640, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"      (activation): LeakyReLU(negative_slope=0.2, inplace=True)\\n\",\n      \"    )\\n\",\n      \"    (layer_2): LinearLayer(\\n\",\n      \"      (linear): Linear(in_features=640, out_features=512, bias=True)\\n\",\n      \"      (dropout): Dropout(p=0.1, inplace=False)\\n\",\n      \"      (normalizer): BatchNorm1d(512, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"      (activation): LeakyReLU(negative_slope=0.2, inplace=True)\\n\",\n      \"    )\\n\",\n      \"    (layer_3): LinearLayer(\\n\",\n      \"      (linear): Linear(in_features=512, out_features=256, bias=True)\\n\",\n      \"      (dropout): Dropout(p=0.1, inplace=False)\\n\",\n      \"      (normalizer): BatchNorm1d(256, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"      (activation): LeakyReLU(negative_slope=0.2, inplace=True)\\n\",\n      \"    )\\n\",\n      \"    (output): Linear(in_features=256, out_features=128, bias=True)\\n\",\n      \"  )\\n\",\n      \")\\n\",\n      \"Median of RMSE: 0.124644004 std: 0.011839285\\n\",\n      \"Median of R square: 0.7629515670007748 std: 0.06191901874519955\\n\",\n      \"Median of MAE: 0.083352484 std: 0.0091531025\\n\",\n      \"Median of RMSE_derivative 0.013060271 std: 0.0008302324\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# repeat for different number of layers in the neural network\\n\",\n    \"for layer_number in range(start_layer, end_layer):\\n\",\n    \"    # repeat for different sigma values for the kernel\\n\",\n    \"    for hyper_number in range(start_hyper, end_hyper):\\n\",\n    \"        # initializing variables for performance evaluation\\n\",\n    \"        anal_index = []        \\n\",\n    \"        anal_real_list = []\\n\",\n    \"        anal_pred_list = []\\n\",\n    \"\\n\",\n    \"        peak_position_real_list = []\\n\",\n    \"        peak_position_pred_list = []\\n\",\n    \"        peak_intensity_real_list = []\\n\",\n    \"        peak_intensity_pred_list = []\\n\",\n    \"\\n\",\n    \"        rmse_median = []\\n\",\n    \"        rmse_data = []\\n\",\n    \"        rsquare_median = []\\n\",\n    \"        mae_median = []\\n\",\n    \"        drmse_median = []\\n\",\n    \"        \\n\",\n    \"        # repeat for three times to check sensitivity to data splitting\\n\",\n    \"        for random_number in range(3):\\n\",\n    \"            # split data with different random seed\\n\",\n    \"            X_train, X_test_val, Y_train, Y_test_val = train_test_split(X_data, Y_data, test_size=split_size, random_state=random_number) \\n\",\n    \"            X_test, X_val, Y_test, Y_val = train_test_split(X_test_val, Y_test_val, test_size=split_val_size, random_state=random_number)\\n\",\n    \"            Dataset_train = torch.utils.data.TensorDataset(X_train, Y_train)\\n\",\n    \"            loader_train = torch.utils.data.DataLoader(Dataset_train, batch_size=50, shuffle=True)\\n\",\n    \"            Dataset_val = torch.utils.data.TensorDataset(X_val, Y_val)\\n\",\n    \"            loader_val = torch.utils.data.DataLoader(Dataset_val, shuffle=False)\\n\",\n    \"\\n\",\n    \"            # bulid model\\n\",\n    \"            netG = KernelNet(\\n\",\n    \"                n_neurons=n_neurons[layer_number],\\n\",\n    \"                wavelength_points=wavelength_points,\\n\",\n    \"                kernel_grids=kernel_grids,\\n\",\n    \"                kernel_func=RBFKernel(\\n\",\n    \"                    sigmas_squared=kernel_hypers[hyper_number][1],\\n\",\n    \"                    hight=kernel_hypers[hyper_number][0]\\n\",\n    \"                ),\\n\",\n    \"            ).to(device)\\n\",\n    \"    \\n\",\n    \"            #########\\n\",\n    \"            ## Load trained model\\n\",\n    \"            #########\\n\",\n    \"            trained_netG_path = '{}/generator_time{:03d}_layer{:03d}_hyper{:03d}.pth'.format(model_path, random_number, layer_number+1, hyper_number+1)\\n\",\n    \"            netG.load_state_dict(torch.load(trained_netG_path))     \\n\",\n    \"\\n\",\n    \"            ############\\n\",\n    \"            ### Analysis\\n\",\n    \"            ############\\n\",\n    \"            pred_spectrum = netG(X_test.to(device))\\n\",\n    \"            anal_real = Y_test[:,1:].to('cpu').detach().numpy().copy()\\n\",\n    \"            anal_pred = pred_spectrum[:].to('cpu').detach().numpy().copy()\\n\",\n    \"            anal_index.extend(Y_test[:,0].to('cpu').detach().numpy().copy())\\n\",\n    \"            anal_real_list.extend(anal_real)\\n\",\n    \"            anal_pred_list.extend(anal_pred)\\n\",\n    \"\\n\",\n    \"            rmse_list = []\\n\",\n    \"            rsquare_list = []\\n\",\n    \"            mae_list = []\\n\",\n    \"            drmse_list = []\\n\",\n    \"        \\n\",\n    \"            for i in range(anal_real.shape[0]):\\n\",\n    \"                # RMSE\\n\",\n    \"                rmse = np.sqrt(mean_squared_error(anal_real[i], anal_pred[i]))\\n\",\n    \"                rmse_list.append(rmse)\\n\",\n    \"                rmse_data.append(rmse)\\n\",\n    \"                # R square\\n\",\n    \"                rsquare = r2_score(anal_real[i], anal_pred[i])\\n\",\n    \"                rsquare_list.append(rsquare)\\n\",\n    \"                # MAE\\n\",\n    \"                mae = mean_absolute_error(anal_real[i], anal_pred[i])\\n\",\n    \"                mae_list.append(mae)\\n\",\n    \"            # RMSE derivative\\n\",\n    \"            real_d = anal_real[:,:-1] - anal_real[:,1:]\\n\",\n    \"            pred_d = anal_pred[:,:-1] - anal_pred[:,1:]\\n\",\n    \"            drmse = np.sqrt(np.sum(((real_d - pred_d) ** 2), axis=1) / anal_real.shape[0])\\n\",\n    \"            drmse_list.append(drmse)\\n\",\n    \"            # calculate median\\n\",\n    \"            rmse_median.append(np.median(rmse_list))\\n\",\n    \"            rsquare_median.append(np.median(rsquare_list))\\n\",\n    \"            mae_median.append(np.median(mae_list))\\n\",\n    \"            drmse_median.append(np.median(drmse_list))\\n\",\n    \"\\n\",\n    \"        # all test results\\n\",\n    \"        anal_index = np.array(anal_index, dtype='int32')\\n\",\n    \"        anal_real_list = np.array(anal_real_list, dtype='float32')\\n\",\n    \"        anal_pred_list = np.array(anal_pred_list, dtype='float32')\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"        print(\\\"#####################\\\")\\n\",\n    \"        print(\\\"##     output results  ##\\\")\\n\",\n    \"        print(\\\"#####################\\\")\\n\",\n    \"        print(netG)\\n\",\n    \"\\n\",\n    \"        # output profiles\\n\",\n    \"        device_cpu = torch.device('cpu')\\n\",\n    \"        exp = pd.DataFrame(anal_real_list)\\n\",\n    \"        exp.insert(loc = 0, column='smiles', value= smiles_list[anal_index])\\n\",\n    \"        if data_case == 1:\\n\",\n    \"            exp.to_csv('{}/exp_profiles_dataset1.csv'.format(out_result))\\n\",\n    \"        elif data_case == 2:\\n\",\n    \"            exp.to_csv('{}/exp_profiles_dataset2.csv'.format(out_result))\\n\",\n    \"        elif data_case == 3:\\n\",\n    \"            exp.to_csv('{}/exp_profiles_USGS.csv'.format(out_result))\\n\",\n    \"        pred = pd.DataFrame(anal_pred_list)\\n\",\n    \"        pred.insert(loc = 0, column='smiles', value= smiles_list[anal_index])\\n\",\n    \"        if data_case == 1:\\n\",\n    \"            pred.to_csv('{}/pred_profiles_dataset1.csv'.format(out_result))\\n\",\n    \"        elif data_case == 2:\\n\",\n    \"            pred.to_csv('{}/pred_profiles_dataset2.csv'.format(out_result))\\n\",\n    \"        elif data_case == 3:\\n\",\n    \"            pred.to_csv('{}/pred_profiles_USGS.csv'.format(out_result))\\n\",\n    \"            \\n\",\n    \"        # RMSE        \\n\",\n    \"        rmse_df = pd.DataFrame([rmse_data])\\n\",\n    \"        rmse_df = rmse_df.transpose()\\n\",\n    \"        rmse_df.columns = [\\\"rmse\\\"]\\n\",\n    \"        rmse_sort = rmse_df.sort_values('rmse')\\n\",\n    \"        rmse_sort_index = rmse_sort.index.values\\n\",\n    \"        print(\\\"Median of RMSE:\\\", np.mean(rmse_median), \\\"std:\\\", np.std(rmse_median))\\n\",\n    \"        # R2\\n\",\n    \"        print(\\\"Median of R square:\\\", np.mean(rsquare_median), \\\"std:\\\", np.std(rsquare_median))\\n\",\n    \"        # MAE\\n\",\n    \"        print(\\\"Median of MAE:\\\", np.mean(mae_median), \\\"std:\\\",np.std(mae_median))            \\n\",\n    \"        # dRMSE\\n\",\n    \"        print(\\\"Median of RMSE_derivative\\\", np.mean(drmse_median), \\\"std:\\\",np.std(drmse_median))\\n\",\n    \"        \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"id\": \"7b07da15\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3 (ipykernel)\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.13\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 5\n}\n"
  },
  {
    "path": "samples/mp_ids.txt",
    "content": "mp-556521\nmp-19852\nmp-1226003\nmp-29946\nmp-1214215\nmp-556709\nmp-567628\nmp-27187\nmp-1204495\nmp-2804\nmp-1228955\nmp-1178446\nmp-1225073\nmp-1214848\nmp-555908\nmp-28392\nmp-21276\nmp-1105136\nmp-581584\nmp-1104050\nmp-20046\nmp-1120756\nmp-643006\nmp-29455\nmp-1210010\nmp-559182\nmp-998762\nmp-713\nmp-1209422\nmp-1188309\nmp-849325\nmp-1019105\nmp-1204836\nmp-541897\nmp-669415\nmp-1205686\nmp-989612\nmp-27648\nmp-4661\nmp-723378\nmp-17822\nmp-1201259\nmp-13277\nmp-762019\nmp-1200086\nmp-1192751\nmp-25977\nmp-1223315\nmp-6660\nmp-23122\nmp-6474\nmp-1104062\nmp-28995\nmp-1185329\nmp-1223649\nmp-866141\nmp-6046\nmp-775326\nmp-1018025\nmp-1103398\nmp-1197491\nmp-1079483\nmp-22564\nmp-1101909\nmp-1225982\nmp-1020108\nmp-5222\nmp-28257\nmp-16780\nmp-1080045\nmp-769460\nmp-542085\nmp-553924\nmp-1212449\nmp-6081\nmp-541677\nmp-18641\nmp-1219553\nmp-20580\nmp-13725\nmp-1221048\nmp-1190279\nmp-730\nmp-23353\nmp-14444\nmp-685928\nmp-1029828\nmp-610491\nmp-989555\nmp-570530\nmp-571461\nmp-1223571\nmp-504506\nmp-27569\nmp-757613\nmp-560144\nmp-1205421\nmp-1206487\nmp-1201412\nmp-1105940\nmp-1209005\nmp-1198384\nmp-1220062\nmp-866003\nmp-27517\nmp-560742\nmp-570238\nmp-23425\nmp-680048\nmp-8931\nmp-14889\nmp-1200574\nmp-36262\nmp-1211874\nmp-1194804\nmp-755363\nmp-1167\nmp-555812\nmp-554732\nmp-562072\nmp-28163\nmp-556463\nmp-12046\nmp-1205693\nmp-29062\nmp-27199\nmp-998428\nmp-23550\nmp-14386\nmp-1227372\nmp-1219278\nmp-1193265\nmp-557747\nmp-672258\nmp-24657\nmp-1219605\nmp-17542\nmp-28696\nmp-18258\nmp-510456\nmp-11051\nmp-644672\nmp-552185\nmp-11639\nmp-8207\nmp-1195436\nmp-1203584\nmp-1105715\nmp-558255\nmp-1211812\nmp-770767\nmp-29945\nmp-9077\nmp-4533\nmp-555344\nmp-1542014\nmp-752849\nmp-1193232\nmp-1229194\nmp-560082\nmp-556689\nmp-1195299\nmp-5073\nmp-3347\nmp-27439\nmp-571341\nmp-1225006\nmp-18612\nmp-17173\nmp-1192836\nmp-738629\nmp-8796\nmp-558576\nmp-1202893\nmp-17945\nmp-1193169\nmp-1114360\nmp-978278\nmp-560115\nmp-2715\nmp-557824\nmp-1198767\nmp-1189104\nmp-570066\nmp-15789\nmp-1221515\nmp-1219591\nmp-973586\nmp-571648\nmp-560685\nmp-3187\nmp-653579\nmp-1013558\nmp-541037\nmp-555609\nmp-1224649\nmp-1212574\nmp-565447\nmp-22989\nmp-27443\nmp-23137\nmp-755492\nmp-865280\nmp-20222\nmp-30056\nmp-1229321\nmp-1205011\nmp-696762\nmp-1080693\nmp-1197632\nmp-3716\nmp-530524\nmp-581345\nmp-616141\nmp-581533\nmp-1112970\nmp-557654\nmp-1208979\nmp-862787\nmp-1210315\nmp-605771\nmp-1209161\nmp-1199965\nmp-866662\nmp-3042\nmp-29138\nmp-643071\nmp-557761\nmp-680015\nmp-1212024\nmp-863435\nmp-28387\nmp-18194\nmp-640389\nmp-4202\nmp-28872\nmp-771106\nmp-1541477\nmp-761036\nmp-18844\nmp-1203015\nmp-1194197\nmp-18051\nmp-29330\nmp-645690\nmp-6892\nmp-1020147\nmp-1211137\nmp-644307\nmp-555417\nmp-560050\nmp-1173377\nmp-863678\nmp-28070\nmp-24124\nmp-1194442\nmp-546552\nmp-1200892\nmp-12309\nmp-541005\nmp-34763\nmp-17811\nmp-761184\nmp-541953\nmp-1205361\nmp-1190423\nmp-3273\nmp-558320\nmp-27939\nmp-14435\nmp-1199278\nmp-30460\nmp-27182\nmp-505435\nmp-553310\nmp-16945\nmp-111\nmp-638150\nmp-1078908\nmp-1207511\nmp-27688\nmp-1217378\nmp-8195\nmp-561018\nmp-1193021\nmp-1192634\nmp-1066131\nmp-556514\nmp-1102052\nmp-17673\nmp-3897\nmp-1216911\nmp-34141\nmp-5342\nmp-1208766\nmp-29331\nmp-5088\nmp-865120\nmp-20288\nmp-559213\nmp-1202913\nmp-1185579\nmp-560459\nmp-1190566\nmp-4340\nmp-2983\nmp-556139\nmp-149\nmp-1211486\nmp-26963\nmp-1209719\nmp-558838\nmp-1224210\nmp-29585\nmp-1193194\nmp-8866\nmp-886\nmp-771255\nmp-757021\nmp-984716\nmp-1195899\nmp-540912\nmp-4727\nmp-541350\nmp-1111080\nmp-3050\nmp-9338\nmp-541352\nmp-1104135\nmp-23526\nmp-32798\nmp-560901\nmp-19037\nmp-29077\nmp-560365\nmp-34078\nmp-1211643\nmp-559186\nmp-16990\nmp-557457\nmp-23488\nmp-864662\nmp-753574\nmp-604889\nmp-18147\nmp-1195262\nmp-556902\nmp-1020016\nmp-865301\nmp-29703\nmp-1197180\nmp-1198737\nmp-555742\nmp-559932\nmp-703444\nmp-29931\nmp-1206350\nmp-24335\nmp-771651\nmp-975666\nmp-1209918\nmp-568836\nmp-1193801\nmp-978852\nmp-16812\nmp-1029418\nmp-1191118\nmp-7148\nmp-606510\nmp-779287\nmp-1173034\nmp-22867\nmp-570884\nmp-28044\nmp-16183\nmp-558229\nmp-1204788\nmp-17544\nmp-697044\nmp-989638\nmp-12797\nmp-17090\nmp-559426\nmp-23565\nmp-1078746\nmp-1191189\nmp-27411\nmp-559722\nmp-1220043\nmp-16096\nmp-9672\nmp-1211701\nmp-574620\nmp-555221\nmp-4426\nmp-27904\nmp-610744\nmp-647342\nmp-18125\nmp-12642\nmp-569129\nmp-17123\nmp-1226125\nmp-1219158\nmp-1105223\nmp-559610\nmp-554421\nmp-22576\nmp-989604\nmp-557282\nmp-541093\nmp-5078\nmp-1104232\nmp-1199892\nmp-1190416\nmp-7494\nmp-560585\nmp-1212617\nmp-15147\nmp-759912\nmp-1208776\nmp-559376\nmp-7152\nmp-556986\nmp-761185\nmp-1198049\nmp-30943\nmp-1078295\nmp-676315\nmp-554941\nmp-27564\nmp-562042\nmp-1112141\nmp-7028\nmp-627380\nmp-866308\nmp-553947\nmp-27239\nmp-643902\nmp-1078999\nmp-1078132\nmp-29496\nmp-504722\nmp-22882\nmp-558217\nmp-1193312\nmp-1195\nmp-1212059\nmp-1207669\nmp-1113578\nmp-1214153\nmp-1244\nmp-1232408\nmp-686674\nmp-17862\nmp-1216363\nmp-24069\nmp-28455\nmp-558159\nmp-1278131\nmp-1213352\nmp-758238\nmp-551456\nmp-1204668\nmp-567756\nmp-560934\nmp-31289\nmp-554252\nmp-1214263\nmp-703673\nmp-28125\nmp-6026\nmp-557260\nmp-1114601\nmp-1190131\nmp-553971\nmp-554783\nmp-667305\nmp-1226158\nmp-1208610\nmp-557918\nmp-559540\nmp-9657\nmp-31020\nmp-7104\nmp-1111421\nmp-1198762\nmp-1209185\nmp-541291\nmp-16978\nmp-40226\nmp-2576\nmp-30126\nmp-1214566\nmp-1227163\nmp-568264\nmp-541450\nmp-1202377\nmp-695911\nmp-27310\nmp-6390\nmp-1222544\nmp-29273\nmp-24662\nmp-556488\nmp-1025274\nmp-573631\nmp-29168\nmp-1193337\nmp-28372\nmp-1227604\nmp-17100\nmp-1192528\nmp-1222196\nmp-4325\nmp-1227220\nmp-645945\nmp-1213213\nmp-560189\nmp-569304\nmp-989567\nmp-540584\nmp-6163\nmp-14423\nmp-1214290\nmp-28067\nmp-29956\nmp-5942\nmp-14880\nmp-1209827\nmp-29419\nmp-560158\nmp-643735\nmp-1113068\nmp-1223191\nmp-1196390\nmp-1105893\nmp-28189\nmp-2815\nmp-697047\nmp-21616\nmp-865188\nmp-557650\nmp-3529\nmp-560022\nmp-15218\nmp-1317\nmp-676313\nmp-865909\nmp-1223547\nmp-541610\nmp-1112008\nmp-1111079\nmp-30239\nmp-6168\nmp-1538990\nmp-583762\nmp-555343\nmp-552567\nmp-17524\nmp-1225829\nmp-1211829\nmp-1212001\nmp-13831\nmp-505102\nmp-542136\nmp-865980\nmp-541001\nmp-29450\nmp-18855\nmp-1214012\nmp-1194813\nmp-761944\nmp-1213486\nmp-16980\nmp-553926\nmp-31259\nmp-707540\nmp-542625\nmp-29938\nmp-16165\nmp-18721\nmp-1204773\nmp-218\nmp-11165\nmp-1543154\nmp-6639\nmp-1225724\nmp-31166\nmp-865324\nmp-1190401\nmp-1209358\nmp-541415\nmp-989522\nmp-1212265\nmp-7436\nmp-560630\nmp-6960\nmp-601257\nmp-8686\nmp-1191811\nmp-556330\nmp-1225822\nmp-1215669\nmp-1202664\nmp-685069\nmp-27806\nmp-1209684\nmp-4529\nmp-542710\nmp-1213680\nmp-999121\nmp-3411\nmp-555155\nmp-560793\nmp-561315\nmp-6527\nmp-557237\nmp-1193412\nmp-559160\nmp-1195801\nmp-541412\nmp-571347\nmp-1208643\nmp-4009\nmp-24648\nmp-1193606\nmp-28496\nmp-1185634\nmp-645692\nmp-532028\nmp-29334\nmp-8537\nmp-543046\nmp-27211\nmp-1192933\nmp-4068\nmp-768670\nmp-29443\nmp-1197150\nmp-23475\nmp-866480\nmp-3283\nmp-1194612\nmp-1222336\nmp-559637\nmp-1203743\nmp-556601\nmp-20250\nmp-1192533\nmp-1019611\nmp-9855\nmp-22871\nmp-849570\nmp-19012\nmp-1208770\nmp-740711\nmp-567414\nmp-1197426\nmp-1190341\nmp-758619\nmp-542888\nmp-1113441\nmp-755287\nmp-685142\nmp-570219\nmp-1192210\nmp-1306165\nmp-1192572\nmp-1105302\nmp-1221800\nmp-1658\nmp-572797\nmp-3797\nmp-781707\nmp-1227545\nmp-1208500\nmp-774702\nmp-558867\nmp-11107\nmp-27181\nmp-29911\nmp-8794\nmp-695998\nmp-2741\nmp-866214\nmp-24182\nmp-30033\nmp-1018768\nmp-27629\nmp-1296711\nmp-771941\nmp-14485\nmp-4971\nmp-504849\nmp-1111106\nmp-1080470\nmp-23033\nmp-1226157\nmp-28575\nmp-19393\nmp-1209756\nmp-628631\nmp-8615\nmp-1209234\nmp-1214049\nmp-632715\nmp-1019789\nmp-862968\nmp-12262\nmp-1541714\nmp-1218648\nmp-9059\nmp-1194756\nmp-677017\nmp-16967\nmp-1190209\nmp-23058\nmp-774193\nmp-1214991\nmp-1112448\nmp-504882\nmp-31010\nmp-561179\nmp-1218632\nmp-2695\nmp-770816\nmp-581877\nmp-12277\nmp-560939\nmp-1213976\nmp-1179734\nmp-24128\nmp-704360\nmp-570520\nmp-28205\nmp-36111\nmp-18988\nmp-557367\nmp-7505\nmp-17905\nmp-769077\nmp-3062\nmp-989551\nmp-22987\nmp-16922\nmp-1181942\nmp-15547\nmp-20399\nmp-9365\nmp-27979\nmp-1883\nmp-22934\nmp-12931\nmp-864942\nmp-23539\nmp-1205833\nmp-556117\nmp-541193\nmp-6860\nmp-14213\nmp-23562\nmp-560120\nmp-23623\nmp-1103152\nmp-2234\nmp-1197804\nmp-1209786\nmp-6089\nmp-644325\nmp-2074\nmp-777297\nmp-31049\nmp-1223746\nmp-1193554\nmp-1227232\nmp-762369\nmp-22504\nmp-10383\nmp-549728\nmp-769176\nmp-743\nmp-1190111\nmp-1111968\nmp-569984\nmp-20185\nmp-28084\nmp-865606\nmp-17024\nmp-1079149\nmp-1009088\nmp-35236\nmp-13903\nmp-699390\nmp-28695\nmp-7645\nmp-1214008\nmp-31235\nmp-24816\nmp-557163\nmp-553895\nmp-579463\nmp-1209201\nmp-1190911\nmp-1207395\nmp-998612\nmp-1068340\nmp-556552\nmp-28859\nmp-1020615\nmp-17445\nmp-560963\nmp-680722\nmp-559904\nmp-12488\nmp-1192580\nmp-559184\nmp-1197651\nmp-29722\nmp-560950\nmp-1112006\nmp-1211743\nmp-9166\nmp-31755\nmp-2472\nmp-16159\nmp-9230\nmp-8411\nmp-29590\nmp-572758\nmp-561311\nmp-27687\nmp-559894\nmp-1210844\nmp-23118\nmp-4394\nmp-1204402\nmp-1207868\nmp-1185179\nmp-560441\nmp-541057\nmp-25987\nmp-27381\nmp-1197745\nmp-1224359\nmp-560544\nmp-18797\nmp-768223\nmp-30252\nmp-1207709\nmp-504354\nmp-22963\nmp-694888\nmp-27352\nmp-1096946\nmp-679997\nmp-1078265\nmp-640885\nmp-555794\nmp-1213326\nmp-9397\nmp-28823\nmp-1183302\nmp-961687\nmp-18953\nmp-1213739\nmp-1192490\nmp-558674\nmp-9581\nmp-1102297\nmp-541134\nmp-582648\nmp-27312\nmp-1221153\nmp-567942\nmp-556802\nmp-1195788\nmp-1195032\nmp-570285\nmp-11694\nmp-16594\nmp-542514\nmp-9719\nmp-1019377\nmp-1019777\nmp-30034\nmp-555172\nmp-683903\nmp-559336\nmp-743773\nmp-977417\nmp-1112467\nmp-29977\nmp-570803\nmp-31627\nmp-23569\nmp-775485\nmp-5824\nmp-29992\nmp-867975\nmp-567752\nmp-18992\nmp-1208672\nmp-1207915\nmp-989533\nmp-23407\nmp-556500\nmp-19458\nmp-540798\nmp-6453\nmp-571240\nmp-18705\nmp-863411\nmp-18483\nmp-1209606\nmp-19407\nmp-561999\nmp-29198\nmp-561535\nmp-1191013\nmp-558707\nmp-19272\nmp-558317\nmp-3613\nmp-680676\nmp-1200496\nmp-19260\nmp-15572\nmp-13949\nmp-740718\nmp-743697\nmp-12644\nmp-643257\nmp-1097065\nmp-680374\nmp-1201962\nmp-510271\nmp-651332\nmp-1225159\nmp-9640\nmp-505799\nmp-705134\nmp-8291\nmp-1211580\nmp-19149\nmp-6442\nmp-9607\nmp-21521\nmp-1219159\nmp-18935\nmp-27456\nmp-505113\nmp-772813\nmp-722246\nmp-9257\nmp-29103\nmp-1209329\nmp-1194412\nmp-31287\nmp-23831\nmp-1213395\nmp-570886\nmp-28198\nmp-30231\nmp-1199170\nmp-555160\nmp-2956\nmp-1183042\nmp-10402\nmp-1209975\nmp-755041\nmp-1200593\nmp-3919\nmp-1182061\nmp-37859\nmp-1007907\nmp-861884\nmp-510545\nmp-16595\nmp-1189227\nmp-1210080\nmp-17308\nmp-20316\nmp-543028\nmp-28394\nmp-1188700\nmp-568662\nmp-568895\nmp-7951\nmp-1213272\nmp-1477\nmp-559224\nmp-769582\nmp-20463\nmp-1228133\nmp-1196968\nmp-13336\nmp-1975\nmp-7523\nmp-1222297\nmp-3654\nmp-1214538\nmp-556536\nmp-20199\nmp-642660\nmp-1195589\nmp-30901\nmp-13610\nmp-677013\nmp-1223953\nmp-31008\nmp-558383\nmp-569454\nmp-703316\nmp-1020122\nmp-753732\nmp-762082\nmp-1101818\nmp-540883\nmp-29051\nmp-989631\nmp-541932\nmp-555027\nmp-23442\nmp-5853\nmp-1189242\nmp-6669\nmp-1209379\nmp-19474\nmp-766540\nmp-1205759\nmp-1212299\nmp-1211301\nmp-556797\nmp-530714\nmp-1222032\nmp-29985\nmp-1112944\nmp-1173263\nmp-556539\nmp-22897\nmp-541368\nmp-560925\nmp-1213993\nmp-699937\nmp-1095278\nmp-1069771\nmp-545544\nmp-1205074\nmp-697283\nmp-549720\nmp-27198\nmp-23341\nmp-695505\nmp-557285\nmp-17256\nmp-8294\nmp-643655\nmp-24546\nmp-553959\nmp-3216\nmp-1209496\nmp-1202948\nmp-677611\nmp-13922\nmp-976384\nmp-11703\nmp-27809\nmp-9368\nmp-3427\nmp-15318\nmp-867580\nmp-556717\nmp-559257\nmp-16828\nmp-541096\nmp-1217684\nmp-5132\nmp-642844\nmp-1214115\nmp-1200647\nmp-1070860\nmp-1189005\nmp-1095440\nmp-1201605\nmp-1114379\nmp-27755\nmp-510226\nmp-1019967\nmp-31212\nmp-733612\nmp-561410\nmp-558963\nmp-17407\nmp-27604\nmp-16108\nmp-1194952\nmp-754246\nmp-1022\nmp-1211560\nmp-555589\nmp-556414\nmp-1111145\nmp-662606\nmp-16678\nmp-1191699\nmp-1190898\nmp-696329\nmp-1223347\nmp-1210714\nmp-625147\nmp-9172\nmp-1222200\nmp-504945\nmp-541090\nmp-735586\nmp-27987\nmp-23292\nmp-9789\nmp-30984\nmp-1202016\nmp-22975\nmp-561518\nmp-15222\nmp-3563\nmp-541966\nmp-865274\nmp-24470\nmp-1210818\nmp-694961\nmp-7427\nmp-695492\nmp-1195423\nmp-573358\nmp-1193984\nmp-1214569\nmp-560407\nmp-15225\nmp-557258\nmp-6964\nmp-1209249\nmp-8890\nmp-558211\nmp-1213624\nmp-22091\nmp-1190633\nmp-1101160\nmp-559563\nmp-1222651\nmp-30023\nmp-735504\nmp-1213306\nmp-559068\nmp-541771\nmp-626268\nmp-865500\nmp-18925\nmp-1219892\nmp-559713\nmp-1192906\nmp-23360\nmp-561110\nmp-866648\nmp-23336\nmp-1191931\nmp-568987\nmp-9625\nmp-557618\nmp-17133\nmp-1216536\nmp-1114468\nmp-1201694\nmp-866709\nmp-1192709\nmp-28877\nmp-542317\nmp-1224706\nmp-1215390\nmp-15643\nmp-555117\nmp-2943\nmp-5581\nmp-6013\nmp-30315\nmp-1203040\nmp-21604\nmp-561350\nmp-556866\nmp-1101894\nmp-28840\nmp-8116\nmp-645340\nmp-504482\nmp-568396\nmp-27336\nmp-759900\nmp-780572\nmp-1204674\nmp-9570\nmp-559580\nmp-554617\nmp-773137\nmp-1194569\nmp-9782\nmp-1101971\nmp-505798\nmp-561243\nmp-505281\nmp-28947\nmp-560791\nmp-532413\nmp-21119\nmp-1182034\nmp-1105695\nmp-557347\nmp-706243\nmp-18504\nmp-23450\nmp-505784\nmp-568592\nmp-865972\nmp-697096\nmp-642648\nmp-867823\nmp-1029975\nmp-14865\nmp-27848\nmp-573755\nmp-2437\nmp-9071\nmp-18511\nmp-7914\nmp-1204585\nmp-5518\nmp-694981\nmp-773117\nmp-755756\nmp-1188821\nmp-12011\nmp-1222492\nmp-17187\nmp-7467\nmp-1193901\nmp-1223527\nmp-562826\nmp-541508\nmp-10778\nmp-646116\nmp-555836\nmp-862693\nmp-1195304\nmp-626151\nmp-1196034\nmp-1212308\nmp-1113425\nmp-1189932\nmp-777460\nmp-559084\nmp-561130\nmp-1228209\nmp-1203522\nmp-1212485\nmp-28207\nmp-29662\nmp-1209642\nmp-1191513\nmp-754768\nmp-17101\nmp-989618\nmp-6943\nmp-38102\nmp-28003\nmp-980659\nmp-569813\nmp-560597\nmp-7744\nmp-23065\nmp-17864\nmp-38357\nmp-557777\nmp-1221952\nmp-1211252\nmp-1201690\nmp-27173\nmp-997161\nmp-567771\nmp-16970\nmp-4452\nmp-31132\nmp-1209627\nmp-1203009\nmp-761033\nmp-546625\nmp-1113020\nmp-1206514\nmp-3777\nmp-30905\nmp-1016092\nmp-1194826\nmp-667286\nmp-583221\nmp-555683\nmp-6062\nmp-555717\nmp-644222\nmp-1019609\nmp-1025179\nmp-23262\nmp-2231\nmp-22694\nmp-1203593\nmp-1198074\nmp-560257\nmp-558673\nmp-5001\nmp-559062\nmp-1197539\nmp-5598\nmp-754598\nmp-559431\nmp-570192\nmp-27526\nmp-27438\nmp-764295\nmp-561423\nmp-10089\nmp-1188559\nmp-757115\nmp-21792\nmp-14368\nmp-1193666\nmp-19886\nmp-16742\nmp-10246\nmp-1019548\nmp-510661\nmp-19403\nmp-1213076\nmp-1193128\nmp-1104686\nmp-1103889\nmp-1195500\nmp-23656\nmp-5532\nmp-27938\nmp-28261\nmp-21332\nmp-1219951\nmp-567373\nmp-1190151\nmp-23406\nmp-1198371\nmp-8075\nmp-569465\nmp-22325\nmp-17539\nmp-1221151\nmp-1216\nmp-554960\nmp-562542\nmp-1095625\nmp-10226\nmp-1567250\nmp-29910\nmp-1210736\nmp-696736\nmp-6253\nmp-1029791\nmp-505698\nmp-1199124\nmp-555131\nmp-14712\nmp-686572\nmp-1209295\nmp-1198622\nmp-1178030\nmp-3519\nmp-684011\nmp-1197952\nmp-555286\nmp-27999\nmp-1222448\nmp-17501\nmp-20157\nmp-1192754\nmp-1212130\nmp-555874\nmp-7061\nmp-30952\nmp-1194550\nmp-541137\nmp-1192805\nmp-558135\nmp-6730\nmp-1208102\nmp-1227255\nmp-1210092\nmp-18337\nmp-6644\nmp-1219828\nmp-1203037\nmp-18743\nmp-23444\nmp-1199087\nmp-6299\nmp-31237\nmp-23117\nmp-1013548\nmp-1203440\nmp-8985\nmp-1189906\nmp-1208868\nmp-558126\nmp-1065609\nmp-16856\nmp-1210514\nmp-558539\nmp-1211757\nmp-18831\nmp-1188089\nmp-1210429\nmp-581586\nmp-1087483\nmp-754326\nmp-14092\nmp-1200353\nmp-1202279\nmp-15954\nmp-10779\nmp-1079181\nmp-862995\nmp-1199840\nmp-1213063\nmp-28166\nmp-568801\nmp-27288\nmp-1017508\nmp-6668\nmp-22038\nmp-1192392\nmp-766966\nmp-1211474\nmp-23276\nmp-1209099\nmp-1198923\nmp-15782\nmp-1218195\nmp-553927\nmp-607454\nmp-22249\nmp-1194680\nmp-34022\nmp-17817\nmp-1210662\nmp-8932\nmp-1195227\nmp-558344\nmp-18104\nmp-22328\nmp-38725\nmp-1223983\nmp-23261\nmp-1195609\nmvc-4357\nmp-1224998\nmp-10487\nmp-1228817\nmp-21879\nmp-31624\nmp-555893\nmp-29136\nmp-1201519\nmp-7979\nmp-653973\nmp-560322\nmp-744192\nmp-4160\nmp-1013527\nmp-1206101\nmp-1199212\nmp-10480\nmp-7173\nmp-567441\nmp-1201494\nmp-772820\nmp-554741\nmp-35769\nmp-1202344\nmp-861979\nmp-559463\nmp-867929\nmp-555838\nmp-20028\nmp-1185513\nmp-1308941\nmp-676881\nmp-36381\nmp-11740\nmp-1170750\nmp-1210157\nmp-1195016\nmp-1095280\nmp-31053\nmp-28864\nmp-1196887\nmp-1113554\nmp-1218058\nmp-28804\nmp-757614\nmp-581738\nmp-23041\nmp-14354\nmp-37614\nmp-18633\nmp-999461\nmp-572441\nmp-1211249\nmp-555560\nmp-1222830\nmp-29529\nmp-1114700\nmp-1101327\nmp-1214384\nmp-556894\nmp-734194\nmp-29374\nmp-1197719\nmp-1198974\nmp-1190336\nmp-1224049\nmp-17874\nmp-1226339\nmp-23403\nmp-554076\nmp-24212\nmp-17382\nmp-768342\nmp-28456\nmp-27622\nmp-17146\nmp-1199265\nmp-13630\nmp-625150\nmp-680240\nmp-1079891\nmp-1077904\nmp-1194579\nmp-560736\nmp-29183\nmp-541895\nmp-558258\nmp-561567\nmp-1219582\nmp-23154\nmp-29282\nmp-1205852\nmp-1208723\nmp-1207793\nmp-1227442\nmp-862670\nmp-6799\nmp-542266\nmp-1185638\nmp-1214304\nmp-1226936\nmp-29731\nmp-721252\nmp-555704\nmp-30908\nmp-28123\nmp-18510\nmp-1203296\nmp-29567\nmp-10299\nmp-1201421\nmp-1204783\nmp-1204868\nmp-23467\nmp-867891\nmp-542210\nmp-560029\nmp-645796\nmp-1209350\nmp-18883\nmp-548615\nmp-1216361\nmp-1202113\nmp-10340\nmp-554885\nmp-769565\nmp-28268\nmp-1111239\nmp-632656\nmp-625381\nmp-1201047\nmp-1203438\nmp-1211291\nmp-1214730\nmp-1198273\nmp-1226388\nmp-3349\nmp-696500\nmp-558753\nmp-648414\nmp-1193269\nmp-27972\nmp-505322\nmp-1187892\nmp-541190\nmp-1198370\nmp-230\nmp-26077\nmp-1019530\nmp-625378\nmp-5450\nmp-620652\nmp-4006\nmp-1209528\nmp-27729\nmp-24570\nmp-1211124\nmp-556531\nmp-1211258\nmp-1181719\nmp-1147776\nmp-553949\nmp-29689\nmp-28111\nmp-28721\nmp-3520\nmp-1211965\nmp-22356\nmp-1213704\nmp-1214348\nmp-554249\nmp-561369\nmp-17380\nmp-643010\nmp-23465\nmp-1705\nmp-691119\nmp-567817\nmp-17926\nmp-3960\nmp-23146\nmp-755352\nmp-6665\nmp-1197516\nmp-1211639\nmp-1225983\nmp-27833\nmp-1206511\nmp-643898\nmp-733932\nmp-558102\nmp-8447\nmp-21213\nmp-1342\nmp-570935\nmp-550117\nmp-1209219\nmp-23544\nmp-16432\nmp-4887\nmp-28380\nmp-644097\nmp-1200887\nmp-5830\nmp-571544\nmp-8697\nmp-1214558\nmp-997041\nmp-1189965\nmp-1225864\nmp-1029469\nmp-558861\nmp-1214275\nmp-10517\nmp-1105594\nmp-29169\nmp-13287\nmp-11980\nmp-1105333\nmp-1078630\nmp-573274\nmp-849304\nmp-23370\nmp-1103091\nmp-15521\nmp-557186\nmp-1196979\nmp-554155\nmp-1203588\nmp-1190388\nmp-1542940\nmp-23662\nmp-1244678\nmp-558215\nmp-556639\nmp-29372\nmp-1113610\nmp-1198510\nmp-6192\nmp-1019526\nmp-641923\nmp-18605\nmp-540656\nmp-18547\nmp-1212008\nmp-1210319\nmp-1095371\nmp-1214272\nmp-28684\nmp-9636\nmp-1298582\nmp-1193242\nmp-554584\nmp-541772\nmp-743574\nmp-561049\nmp-1183053\nmp-546082\nmp-772191\nmp-643293\nmp-961713\nmp-23418\nmp-555420\nmp-1195311\nmp-1226138\nmp-1196446\nmp-18685\nmp-1112660\nmp-28007\nmp-773133\nmp-558121\nmp-542512\nmp-1025227\nmp-15783\nmp-1203462\nmp-1666\nmp-1213150\nmp-560423\nmp-680170\nmp-640353\nmp-17441\nmp-669410\nmp-1228411\nmp-1209659\nmp-1192364\nmp-1209328\nmp-573815\nmp-1223759\nmp-1864\nmp-1202045\nmp-10955\nmp-555052\nmp-17857\nmp-2979\nmp-31014\nmp-23602\nmp-17921\nmp-10838\nmp-558534\nmp-1211612\nmp-861914\nmp-1212017\nmp-581868\nmp-1213801\nmp-541912\nmp-1227389\nmp-1078269\nmp-5040\nmp-13674\nmp-1029625\nmp-1019525\nmp-1190335\nmp-1211803\nmp-16763\nmp-14023\nmp-1218763\nmp-505217\nmp-1194832\nmp-561343\nmp-29555\nmp-567644\nmp-29145\nmp-27928\nmp-28940\nmp-1222462\nmp-18893\nmp-1214461\nmp-1204248\nmp-1210117\nmp-13820\nmp-1202901\nmp-558642\nmp-1209940\nmp-6526\nmp-1212579\nmp-29462\nmp-1539101\nmp-1175419\nmp-1194862\nmp-6951\nmp-12233\nmp-1078624\nmp-557941\nmp-558486\nmp-560790\nmp-557756\nmp-14673\nmp-2908\nmp-1205700\nmp-638731\nmp-1204286\nmp-5782\nmp-560855\nmp-680713\nmp-1079666\nmp-23311\nmp-15649\nmp-1203665\nmp-861904\nmp-17177\nmp-6113\nmp-556046\nmp-1182477\nmp-9856\nmp-3822\nmp-1215577\nmp-556308\nmp-1212171\nmp-7908\nmp-642735\nmp-1209334\nmp-667372\nmp-699453\nmp-11719\nmp-1195934\nmp-31220\nmp-18463\nmp-567777\nmp-16608\nmp-28591\nmp-8187\nmp-722684\nmp-1227162\nmp-772261\nmp-542140\nmp-560688\nmp-989541\nmp-998778\nmp-27400\nmp-1112669\nmp-8872\nmp-1120731\nmp-1066791\nmp-557821\nmp-28728\nmp-30150\nmp-560330\nmp-17875\nmp-1199771\nmp-39159\nmp-571162\nmp-1025567\nmp-1279062\nmp-9565\nmp-1200258\nmp-510450\nmp-1199482\nmp-1194629\nmp-617442\nmp-547125\nmp-1195415\nmp-1208444\nmp-1072208\nmp-1019786\nmp-1193277\nmp-705435\nmp-1226988\nmp-505076\nmp-643573\nmp-558940\nmp-780075\nmp-505815\nmp-582011\nmp-22978\nmp-1029396\nmp-1192188\nmp-1189125\nmp-669351\nmp-554056\nmp-18305\nmp-558692\nmp-554111\nmp-14835\nmp-1542604\nmp-1227140\nmp-13816\nmp-24034\nmp-985829\nmp-1192718\nmp-15661\nmp-768830\nmp-1209222\nmp-18908\nmp-864898\nmp-25279\nmp-1209894\nmp-14858\nmp-1190817\nmp-697540\nmp-562480\nmp-25410\nmp-573324\nmp-607436\nmp-679\nmp-1192365\nmp-1209173\nmp-555457\nmp-8754\nmp-10163\nmp-6867\nmp-976578\nmp-8479\nmp-1194001\nmp-684911\nmp-626785\nmp-27377\nmp-1112515\nmp-29842\nmp-27484\nmp-561642\nmp-1209683\nmp-1221101\nmp-24196\nmp-1018136\nmp-22766\nmp-1200998\nmp-549709\nmp-1192642\nmp-556325\nmp-569028\nmp-849222\nmp-10933\nmp-771139\nmp-1216740\nmp-24761\nmp-554492\nmp-1191673\nmp-1199056\nmp-6019\nmp-643276\nmp-552234\nmp-733455\nmp-554887\nmp-1101401\nmp-1112596\nmp-540822\nmp-645695\nmp-1540904\nmp-677164\nmp-559384\nmp-643451\nmp-553025\nmp-1078209\nmp-867231\nmp-9010\nmp-1195896\nmp-531826\nmp-557391\nmp-865143\nmp-1221016\nmp-8177\nmp-1201514\nmp-1095485\nmp-17727\nmp-505465\nmp-10070\nmp-1020637\nmp-1219639\nmp-1211413\nmp-1214530\nmp-1195095\nmp-679927\nmp-31107\nmp-1195055\nmp-28421\nmp-1192527\nmp-19833\nmp-1210695\nmp-24619\nmp-1190543\nmp-30149\nmp-6486\nmp-1007663\nmp-1211322\nmp-720971\nmp-1113614\n"
  },
  {
    "path": "samples/nn_model_build.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run tools.ipynb\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# Model building\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"This tutorial shows how to build neuron network models.\\n\",\n    \"At end, will calculate compositional descriptors using `xenonpy.descriptor.Compositions` calculator and train our model using `xenonpy.model.training` modules.\\n\",\n    \"\\n\",\n    \"ALso, we will use some inorganic sample data from materials project to execute this tutorial. \\n\",\n    \"If you don't have it, please see https://github.com/yoshida-lab/XenonPy/blob/master/samples/build_sample_data.ipynb.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import torch\\n\",\n    \"import matplotlib.pyplot as plt\\n\",\n    \"import plotly.express as px\\n\",\n    \"import seaborn as sns\\n\",\n    \"from torch.utils.data import DataLoader\\n\",\n    \"from pymatgen import Structure\\n\",\n    \"\\n\",\n    \"from xenonpy.model.training import Trainer, SGD, MSELoss, Adam, ReduceLROnPlateau, ExponentialLR, ClipNorm\\n\",\n    \"from xenonpy.model.training.extension import Validator, TensorConverter, Persist\\n\",\n    \"from xenonpy.model.training.dataset import ArrayDataset, CrystalGraphDataset\\n\",\n    \"from xenonpy.model.utils import regression_metrics\\n\",\n    \"from xenonpy.model import CrystalGraphConvNet\\n\",\n    \"\\n\",\n    \"from xenonpy.datatools import preset, Splitter\\n\",\n    \"from xenonpy.descriptor import Compositions, CrystalGraphFeaturizer\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"## sample data\\n\",\n    \"\\n\",\n    \"If you followed the tutorial in https://github.com/yoshida-lab/XenonPy/blob/master/samples/build_sample_data.ipynb,\\n\",\n    \"the sample data should be save at `~/.xenonpy/userdata` with name `mp_samples.pd.xz`.\\n\",\n    \"\\n\",\n    \"You can use `pd.read_pickle` to load this file but we suggest that you use our `xenonpy.datatools.preset` module.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>band_gap</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>density</th>\\n\",\n       \"      <th>e_above_hull</th>\\n\",\n       \"      <th>efermi</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>final_energy_per_atom</th>\\n\",\n       \"      <th>formation_energy_per_atom</th>\\n\",\n       \"      <th>pretty_formula</th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"      <th>volume</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1008807</th>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"      <td>{'Rb': 1.0, 'Cu': 1.0, 'O': 1.0}</td>\\n\",\n       \"      <td>4.784634</td>\\n\",\n       \"      <td>0.996372</td>\\n\",\n       \"      <td>1.100617</td>\\n\",\n       \"      <td>[Rb, Cu, O]</td>\\n\",\n       \"      <td>-3.302762</td>\\n\",\n       \"      <td>-0.186408</td>\\n\",\n       \"      <td>RbCuO</td>\\n\",\n       \"      <td>[[-3.05935361 -3.05935361 -3.05935361] Rb, [0....</td>\\n\",\n       \"      <td>57.268924</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1009640</th>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"      <td>{'Pr': 1.0, 'N': 1.0}</td>\\n\",\n       \"      <td>8.145777</td>\\n\",\n       \"      <td>0.759393</td>\\n\",\n       \"      <td>5.213442</td>\\n\",\n       \"      <td>[Pr, N]</td>\\n\",\n       \"      <td>-7.082624</td>\\n\",\n       \"      <td>-0.714336</td>\\n\",\n       \"      <td>PrN</td>\\n\",\n       \"      <td>[[0. 0. 0.] Pr, [1.57925232 1.57925232 1.58276...</td>\\n\",\n       \"      <td>31.579717</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1016825</th>\\n\",\n       \"      <td>0.7745</td>\\n\",\n       \"      <td>{'Hf': 1.0, 'Mg': 1.0, 'O': 3.0}</td>\\n\",\n       \"      <td>6.165888</td>\\n\",\n       \"      <td>0.589550</td>\\n\",\n       \"      <td>2.424570</td>\\n\",\n       \"      <td>[Hf, Mg, O]</td>\\n\",\n       \"      <td>-7.911723</td>\\n\",\n       \"      <td>-3.060060</td>\\n\",\n       \"      <td>HfMgO3</td>\\n\",\n       \"      <td>[[2.03622802 2.03622802 2.03622802] Hf, [0. 0....</td>\\n\",\n       \"      <td>67.541269</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            band_gap                       composition   density  e_above_hull  ...  formation_energy_per_atom pretty_formula                                          structure     volume\\n\",\n       \"mp-1008807    0.0000  {'Rb': 1.0, 'Cu': 1.0, 'O': 1.0}  4.784634      0.996372  ...                  -0.186408          RbCuO  [[-3.05935361 -3.05935361 -3.05935361] Rb, [0....  57.268924\\n\",\n       \"mp-1009640    0.0000             {'Pr': 1.0, 'N': 1.0}  8.145777      0.759393  ...                  -0.714336            PrN  [[0. 0. 0.] Pr, [1.57925232 1.57925232 1.58276...  31.579717\\n\",\n       \"mp-1016825    0.7745  {'Hf': 1.0, 'Mg': 1.0, 'O': 3.0}  6.165888      0.589550  ...                  -3.060060         HfMgO3  [[2.03622802 2.03622802 2.03622802] Hf, [0. 0....  67.541269\\n\",\n       \"\\n\",\n       \"[3 rows x 11 columns]\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.datatools import preset\\n\",\n    \"\\n\",\n    \"data = preset.mp_samples\\n\",\n    \"data.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"## compositional descriptor\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1008807</th>\\n\",\n       \"      <td>24.666667</td>\\n\",\n       \"      <td>174.067140</td>\\n\",\n       \"      <td>209.333333</td>\\n\",\n       \"      <td>25.666667</td>\\n\",\n       \"      <td>55.004267</td>\\n\",\n       \"      <td>1297.063333</td>\\n\",\n       \"      <td>72.868680</td>\\n\",\n       \"      <td>1646.90</td>\\n\",\n       \"      <td>139.333333</td>\\n\",\n       \"      <td>128.333333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.360</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>349.5</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1009640</th>\\n\",\n       \"      <td>33.000000</td>\\n\",\n       \"      <td>137.000000</td>\\n\",\n       \"      <td>232.500000</td>\\n\",\n       \"      <td>19.050000</td>\\n\",\n       \"      <td>77.457330</td>\\n\",\n       \"      <td>1931.200000</td>\\n\",\n       \"      <td>43.182441</td>\\n\",\n       \"      <td>1892.85</td>\\n\",\n       \"      <td>137.000000</td>\\n\",\n       \"      <td>123.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.192</td>\\n\",\n       \"      <td>0.02583</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>166.0</td>\\n\",\n       \"      <td>193.0</td>\\n\",\n       \"      <td>360.6</td>\\n\",\n       \"      <td>333.6</td>\\n\",\n       \"      <td>1.100</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1016825</th>\\n\",\n       \"      <td>21.600000</td>\\n\",\n       \"      <td>153.120852</td>\\n\",\n       \"      <td>203.400000</td>\\n\",\n       \"      <td>13.920000</td>\\n\",\n       \"      <td>50.158400</td>\\n\",\n       \"      <td>1420.714000</td>\\n\",\n       \"      <td>76.663625</td>\\n\",\n       \"      <td>343.82</td>\\n\",\n       \"      <td>102.800000</td>\\n\",\n       \"      <td>96.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.146</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>302.1</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1017582</th>\\n\",\n       \"      <td>59.400000</td>\\n\",\n       \"      <td>139.000000</td>\\n\",\n       \"      <td>232.800000</td>\\n\",\n       \"      <td>11.020000</td>\\n\",\n       \"      <td>147.233694</td>\\n\",\n       \"      <td>4226.000000</td>\\n\",\n       \"      <td>150.200000</td>\\n\",\n       \"      <td>1037.58</td>\\n\",\n       \"      <td>137.600000</td>\\n\",\n       \"      <td>124.800000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.133</td>\\n\",\n       \"      <td>13.00000</td>\\n\",\n       \"      <td>170.0</td>\\n\",\n       \"      <td>177.0</td>\\n\",\n       \"      <td>204.0</td>\\n\",\n       \"      <td>275.4</td>\\n\",\n       \"      <td>2475.0</td>\\n\",\n       \"      <td>1.670</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1021511</th>\\n\",\n       \"      <td>32.000000</td>\\n\",\n       \"      <td>140.500000</td>\\n\",\n       \"      <td>226.000000</td>\\n\",\n       \"      <td>14.300000</td>\\n\",\n       \"      <td>72.237000</td>\\n\",\n       \"      <td>877.912000</td>\\n\",\n       \"      <td>24.850000</td>\\n\",\n       \"      <td>272.50</td>\\n\",\n       \"      <td>124.500000</td>\\n\",\n       \"      <td>119.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.232</td>\\n\",\n       \"      <td>0.20500</td>\\n\",\n       \"      <td>180.0</td>\\n\",\n       \"      <td>189.0</td>\\n\",\n       \"      <td>215.0</td>\\n\",\n       \"      <td>284.8</td>\\n\",\n       \"      <td>2310.0</td>\\n\",\n       \"      <td>2.900</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>5 rows × 290 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-1008807          24.666667         174.067140              209.333333   \\n\",\n       \"mp-1009640          33.000000         137.000000              232.500000   \\n\",\n       \"mp-1016825          21.600000         153.120852              203.400000   \\n\",\n       \"mp-1017582          59.400000         139.000000              232.800000   \\n\",\n       \"mp-1021511          32.000000         140.500000              226.000000   \\n\",\n       \"\\n\",\n       \"            ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-1008807          25.666667          55.004267        1297.063333   \\n\",\n       \"mp-1009640          19.050000          77.457330        1931.200000   \\n\",\n       \"mp-1016825          13.920000          50.158400        1420.714000   \\n\",\n       \"mp-1017582          11.020000         147.233694        4226.000000   \\n\",\n       \"mp-1021511          14.300000          72.237000         877.912000   \\n\",\n       \"\\n\",\n       \"            ave:bulk_modulus  ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-1008807         72.868680    1646.90                   139.333333   \\n\",\n       \"mp-1009640         43.182441    1892.85                   137.000000   \\n\",\n       \"mp-1016825         76.663625     343.82                   102.800000   \\n\",\n       \"mp-1017582        150.200000    1037.58                   137.600000   \\n\",\n       \"mp-1021511         24.850000     272.50                   124.500000   \\n\",\n       \"\\n\",\n       \"            ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"mp-1008807                  128.333333  ...                1.0         2.0   \\n\",\n       \"mp-1009640                  123.500000  ...                2.0         2.0   \\n\",\n       \"mp-1016825                   96.000000  ...                2.0         2.0   \\n\",\n       \"mp-1017582                  124.800000  ...                1.0         2.0   \\n\",\n       \"mp-1021511                  119.500000  ...                2.0         3.0   \\n\",\n       \"\\n\",\n       \"            min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"mp-1008807              0.360                   0.02658           152.0   \\n\",\n       \"mp-1009640              0.192                   0.02583           155.0   \\n\",\n       \"mp-1016825              0.146                   0.02658           152.0   \\n\",\n       \"mp-1017582              0.133                  13.00000           170.0   \\n\",\n       \"mp-1021511              0.232                   0.20500           180.0   \\n\",\n       \"\\n\",\n       \"            min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"mp-1008807                   150.0               182.0               349.5   \\n\",\n       \"mp-1009640                   166.0               193.0               360.6   \\n\",\n       \"mp-1016825                   150.0               182.0               302.1   \\n\",\n       \"mp-1017582                   177.0               204.0               275.4   \\n\",\n       \"mp-1021511                   189.0               215.0               284.8   \\n\",\n       \"\\n\",\n       \"            min:sound_velocity  min:Polarizability  \\n\",\n       \"mp-1008807               317.5               0.802  \\n\",\n       \"mp-1009640               333.6               1.100  \\n\",\n       \"mp-1016825               317.5               0.802  \\n\",\n       \"mp-1017582              2475.0               1.670  \\n\",\n       \"mp-1021511              2310.0               2.900  \\n\",\n       \"\\n\",\n       \"[5 rows x 290 columns]\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>volume</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1008807</th>\\n\",\n       \"      <td>57.268924</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1009640</th>\\n\",\n       \"      <td>31.579717</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1016825</th>\\n\",\n       \"      <td>67.541269</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1017582</th>\\n\",\n       \"      <td>85.579224</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1021511</th>\\n\",\n       \"      <td>92.890725</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"               volume\\n\",\n       \"mp-1008807  57.268924\\n\",\n       \"mp-1009640  31.579717\\n\",\n       \"mp-1016825  67.541269\\n\",\n       \"mp-1017582  85.579224\\n\",\n       \"mp-1021511  92.890725\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"prop = data[data.volume <= 2500]['volume'].to_frame()\\n\",\n    \"desc = Compositions(featurizers='classic').transform(data.loc[prop.index]['composition'])\\n\",\n    \"\\n\",\n    \"desc.head(5)\\n\",\n    \"prop.head(5)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"sp = Splitter(prop.shape[0])\\n\",\n    \"x_train, x_val, y_train, y_val = sp.split(desc, prop)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(738, 290)\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(738, 1)\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(185, 290)\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(185, 1)\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"x_train.shape\\n\",\n    \"y_train.shape\\n\",\n    \"x_val.shape\\n\",\n    \"y_val.shape\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"Sequential(\\n\",\n       \"  (0): Linear(in_features=290, out_features=200, bias=True)\\n\",\n       \"  (1): BatchNorm1d(200, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"  (2): ReLU()\\n\",\n       \"  (3): Dropout(p=0.1)\\n\",\n       \"  (4): Linear(in_features=200, out_features=100, bias=True)\\n\",\n       \"  (5): BatchNorm1d(100, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"  (6): ReLU()\\n\",\n       \"  (7): Dropout(p=0.1)\\n\",\n       \"  (8): Linear(in_features=100, out_features=1, bias=True)\\n\",\n       \")\"\n      ]\n     },\n     \"execution_count\": 14,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"model = torch.nn.Sequential(\\n\",\n    \"    torch.nn.Linear(290, 200),\\n\",\n    \"    torch.nn.BatchNorm1d(200),\\n\",\n    \"    torch.nn.ReLU(),\\n\",\n    \"    torch.nn.Dropout(0.1),\\n\",\n    \"    torch.nn.Linear(200, 100),\\n\",\n    \"    torch.nn.BatchNorm1d(100),\\n\",\n    \"    torch.nn.ReLU(),\\n\",\n    \"    torch.nn.Dropout(0.1),\\n\",\n    \"    torch.nn.Linear(100, 1),\\n\",\n    \")\\n\",\n    \"model\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"trainer = Trainer(\\n\",\n    \"    optimizer=Adam(lr=0.01),\\n\",\n    \"    loss_func=MSELoss(),\\n\",\n    \"    clip_grad=ClipNorm(max_norm=0.5),\\n\",\n    \"    lr_scheduler=ExponentialLR(gamma=0.99),\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 17,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"trainer.extend(\\n\",\n    \"    TensorConverter(),\\n\",\n    \"    Validator(metrics_func=regression_metrics, early_stopping=5, trace_order=5, mae=0.0, pearsonr=1.0),\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"train_dataset = DataLoader(ArrayDataset(x_train, y_train), shuffle=True, batch_size=1000)\\n\",\n    \"val_dataset = DataLoader(ArrayDataset(x_val, y_val), batch_size=1000)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 19,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"persist = Persist('test_model', increment=True, sync_training_step=True)\\n\",\n    \"trainer.extend(persist)\\n\",\n    \"trainer.reset(to=model)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 20,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training: 100%|██████████| 10/10 [00:00<00:00, 25.04it/s]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"trainer.fit(training_dataset=train_dataset, validation_dataset=val_dataset, epochs=10)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 21,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Sequential(\\n\",\n      \"  (0): Linear(in_features=290, out_features=200, bias=True)\\n\",\n      \"  (1): BatchNorm1d(200, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"  (2): ReLU()\\n\",\n      \"  (3): Dropout(p=0.1)\\n\",\n      \"  (4): Linear(in_features=200, out_features=100, bias=True)\\n\",\n      \"  (5): BatchNorm1d(100, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"  (6): ReLU()\\n\",\n      \"  (7): Dropout(p=0.1)\\n\",\n      \"  (8): Linear(in_features=100, out_features=1, bias=True)\\n\",\n      \")\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"'Sequential(\\\\n  (0): Linear(in_features=290, out_features=200, bias=True)\\\\n  (1): BatchNorm1d(200, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\\\n  (2): ReLU()\\\\n  (3): Dropout(p=0.1)\\\\n  (4): Linear(in_features=200, out_features=100, bias=True)\\\\n  (5): BatchNorm1d(100, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\\\n  (6): ReLU()\\\\n  (7): Dropout(p=0.1)\\\\n  (8): Linear(in_features=100, out_features=1, bias=True)\\\\n)'\"\n      ]\n     },\n     \"execution_count\": 21,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"trainer['persist'].model_structure\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>total_iters</th>\\n\",\n       \"      <th>i_epoch</th>\\n\",\n       \"      <th>i_batch</th>\\n\",\n       \"      <th>train_mse_loss</th>\\n\",\n       \"      <th>val_mae</th>\\n\",\n       \"      <th>val_mse</th>\\n\",\n       \"      <th>val_rmse</th>\\n\",\n       \"      <th>val_r2</th>\\n\",\n       \"      <th>val_pearsonr</th>\\n\",\n       \"      <th>val_spearmanr</th>\\n\",\n       \"      <th>val_p_value</th>\\n\",\n       \"      <th>val_max_ae</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>412426.46875</td>\\n\",\n       \"      <td>440.195770</td>\\n\",\n       \"      <td>386787.81250</td>\\n\",\n       \"      <td>621.922668</td>\\n\",\n       \"      <td>-1.003871</td>\\n\",\n       \"      <td>0.043379</td>\\n\",\n       \"      <td>-0.036405</td>\\n\",\n       \"      <td>0.557682</td>\\n\",\n       \"      <td>2450.045898</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>412127.28125</td>\\n\",\n       \"      <td>439.935394</td>\\n\",\n       \"      <td>386543.06250</td>\\n\",\n       \"      <td>621.725891</td>\\n\",\n       \"      <td>-1.002603</td>\\n\",\n       \"      <td>0.055332</td>\\n\",\n       \"      <td>0.035912</td>\\n\",\n       \"      <td>0.454417</td>\\n\",\n       \"      <td>2449.945557</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>411895.40625</td>\\n\",\n       \"      <td>439.896790</td>\\n\",\n       \"      <td>386497.71875</td>\\n\",\n       \"      <td>621.689392</td>\\n\",\n       \"      <td>-1.002369</td>\\n\",\n       \"      <td>0.091608</td>\\n\",\n       \"      <td>0.032120</td>\\n\",\n       \"      <td>0.214915</td>\\n\",\n       \"      <td>2449.918945</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>411632.93750</td>\\n\",\n       \"      <td>439.770111</td>\\n\",\n       \"      <td>386365.50000</td>\\n\",\n       \"      <td>621.583069</td>\\n\",\n       \"      <td>-1.001683</td>\\n\",\n       \"      <td>0.131899</td>\\n\",\n       \"      <td>0.059636</td>\\n\",\n       \"      <td>0.073505</td>\\n\",\n       \"      <td>2449.862305</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>411355.40625</td>\\n\",\n       \"      <td>439.558838</td>\\n\",\n       \"      <td>386139.68750</td>\\n\",\n       \"      <td>621.401367</td>\\n\",\n       \"      <td>-1.000514</td>\\n\",\n       \"      <td>0.162956</td>\\n\",\n       \"      <td>0.123181</td>\\n\",\n       \"      <td>0.026674</td>\\n\",\n       \"      <td>2449.797119</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"   total_iters  i_epoch  i_batch  train_mse_loss     val_mae       val_mse  \\\\\\n\",\n       \"0            1        1        1    412426.46875  440.195770  386787.81250   \\n\",\n       \"1            2        2        1    412127.28125  439.935394  386543.06250   \\n\",\n       \"2            3        3        1    411895.40625  439.896790  386497.71875   \\n\",\n       \"3            4        4        1    411632.93750  439.770111  386365.50000   \\n\",\n       \"4            5        5        1    411355.40625  439.558838  386139.68750   \\n\",\n       \"\\n\",\n       \"     val_rmse    val_r2  val_pearsonr  val_spearmanr  val_p_value   val_max_ae  \\n\",\n       \"0  621.922668 -1.003871      0.043379      -0.036405     0.557682  2450.045898  \\n\",\n       \"1  621.725891 -1.002603      0.055332       0.035912     0.454417  2449.945557  \\n\",\n       \"2  621.689392 -1.002369      0.091608       0.032120     0.214915  2449.918945  \\n\",\n       \"3  621.583069 -1.001683      0.131899       0.059636     0.073505  2449.862305  \\n\",\n       \"4  621.401367 -1.000514      0.162956       0.123181     0.026674  2449.797119  \"\n      ]\n     },\n     \"execution_count\": 16,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"trainer.training_info.head(5)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 34,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"['mae:1',\\n\",\n       \" 'pearsonr:1',\\n\",\n       \" 'mae:2',\\n\",\n       \" 'pearsonr:2',\\n\",\n       \" 'mae:3',\\n\",\n       \" 'pearsonr:3',\\n\",\n       \" 'mae:4',\\n\",\n       \" 'pearsonr:4',\\n\",\n       \" 'mae:5',\\n\",\n       \" 'pearsonr:5']\"\n      ]\n     },\n     \"execution_count\": 34,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"trainer.get_checkpoint()\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"        <script type=\\\"text/javascript\\\">\\n\",\n       \"        window.PlotlyConfig = {MathJaxConfig: 'local'};\\n\",\n       \"        if (window.MathJax) {MathJax.Hub.Config({SVG: {font: \\\"STIX-Web\\\"}});}\\n\",\n       \"        if (typeof require !== 'undefined') {\\n\",\n       \"        require.undef(\\\"plotly\\\");\\n\",\n       \"        define('plotly', function(require, exports, module) {\\n\",\n       \"            /**\\n\",\n       \"* plotly.js v1.48.3\\n\",\n       \"* Copyright 2012-2019, Plotly, Inc.\\n\",\n       \"* All rights reserved.\\n\",\n       \"* Licensed under the MIT license\\n\",\n       \"*/\\n\",\n       \"!function(t){if(\\\"object\\\"==typeof exports&&\\\"undefined\\\"!=typeof module)module.exports=t();else if(\\\"function\\\"==typeof define&&define.amd)define([],t);else{(\\\"undefined\\\"!=typeof window?window:\\\"undefined\\\"!=typeof global?global:\\\"undefined\\\"!=typeof self?self:this).Plotly=t()}}(function(){return function(){return function t(e,r,n){function i(o,s){if(!r[o]){if(!e[o]){var l=\\\"function\\\"==typeof require&&require;if(!s&&l)return l(o,!0);if(a)return a(o,!0);var c=new Error(\\\"Cannot find module '\\\"+o+\\\"'\\\");throw c.code=\\\"MODULE_NOT_FOUND\\\",c}var u=r[o]={exports:{}};e[o][0].call(u.exports,function(t){return i(e[o][1][t]||t)},u,u.exports,t,e,r,n)}return r[o].exports}for(var a=\\\"function\\\"==typeof require&&require,o=0;o<n.length;o++)i(n[o]);return i}}()({1:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../src/lib\\\"),i={\\\"X,X div\\\":\\\"direction:ltr;font-family:'Open Sans', verdana, arial, sans-serif;margin:0;padding:0;\\\",\\\"X input,X button\\\":\\\"font-family:'Open Sans', verdana, arial, sans-serif;\\\",\\\"X input:focus,X button:focus\\\":\\\"outline:none;\\\",\\\"X a\\\":\\\"text-decoration:none;\\\",\\\"X a:hover\\\":\\\"text-decoration:none;\\\",\\\"X .crisp\\\":\\\"shape-rendering:crispEdges;\\\",\\\"X .user-select-none\\\":\\\"-webkit-user-select:none;-moz-user-select:none;-ms-user-select:none;-o-user-select:none;user-select:none;\\\",\\\"X svg\\\":\\\"overflow:hidden;\\\",\\\"X svg a\\\":\\\"fill:#447adb;\\\",\\\"X svg a:hover\\\":\\\"fill:#3c6dc5;\\\",\\\"X .main-svg\\\":\\\"position:absolute;top:0;left:0;pointer-events:none;\\\",\\\"X .main-svg .draglayer\\\":\\\"pointer-events:all;\\\",\\\"X .cursor-default\\\":\\\"cursor:default;\\\",\\\"X .cursor-pointer\\\":\\\"cursor:pointer;\\\",\\\"X .cursor-crosshair\\\":\\\"cursor:crosshair;\\\",\\\"X .cursor-move\\\":\\\"cursor:move;\\\",\\\"X .cursor-col-resize\\\":\\\"cursor:col-resize;\\\",\\\"X .cursor-row-resize\\\":\\\"cursor:row-resize;\\\",\\\"X .cursor-ns-resize\\\":\\\"cursor:ns-resize;\\\",\\\"X .cursor-ew-resize\\\":\\\"cursor:ew-resize;\\\",\\\"X .cursor-sw-resize\\\":\\\"cursor:sw-resize;\\\",\\\"X .cursor-s-resize\\\":\\\"cursor:s-resize;\\\",\\\"X .cursor-se-resize\\\":\\\"cursor:se-resize;\\\",\\\"X .cursor-w-resize\\\":\\\"cursor:w-resize;\\\",\\\"X .cursor-e-resize\\\":\\\"cursor:e-resize;\\\",\\\"X .cursor-nw-resize\\\":\\\"cursor:nw-resize;\\\",\\\"X .cursor-n-resize\\\":\\\"cursor:n-resize;\\\",\\\"X .cursor-ne-resize\\\":\\\"cursor:ne-resize;\\\",\\\"X .cursor-grab\\\":\\\"cursor:-webkit-grab;cursor:grab;\\\",\\\"X .modebar\\\":\\\"position:absolute;top:2px;right:2px;\\\",\\\"X .ease-bg\\\":\\\"-webkit-transition:background-color 0.3s ease 0s;-moz-transition:background-color 0.3s ease 0s;-ms-transition:background-color 0.3s ease 0s;-o-transition:background-color 0.3s ease 0s;transition:background-color 0.3s ease 0s;\\\",\\\"X .modebar--hover>:not(.watermark)\\\":\\\"opacity:0;-webkit-transition:opacity 0.3s ease 0s;-moz-transition:opacity 0.3s ease 0s;-ms-transition:opacity 0.3s ease 0s;-o-transition:opacity 0.3s ease 0s;transition:opacity 0.3s ease 0s;\\\",\\\"X:hover .modebar--hover .modebar-group\\\":\\\"opacity:1;\\\",\\\"X .modebar-group\\\":\\\"float:left;display:inline-block;box-sizing:border-box;padding-left:8px;position:relative;vertical-align:middle;white-space:nowrap;\\\",\\\"X .modebar-btn\\\":\\\"position:relative;font-size:16px;padding:3px 4px;height:22px;cursor:pointer;line-height:normal;box-sizing:border-box;\\\",\\\"X .modebar-btn svg\\\":\\\"position:relative;top:2px;\\\",\\\"X .modebar.vertical\\\":\\\"display:flex;flex-direction:column;flex-wrap:wrap;align-content:flex-end;max-height:100%;\\\",\\\"X .modebar.vertical svg\\\":\\\"top:-1px;\\\",\\\"X .modebar.vertical .modebar-group\\\":\\\"display:block;float:none;padding-left:0px;padding-bottom:8px;\\\",\\\"X .modebar.vertical .modebar-group .modebar-btn\\\":\\\"display:block;text-align:center;\\\",\\\"X [data-title]:before,X [data-title]:after\\\":\\\"position:absolute;-webkit-transform:translate3d(0, 0, 0);-moz-transform:translate3d(0, 0, 0);-ms-transform:translate3d(0, 0, 0);-o-transform:translate3d(0, 0, 0);transform:translate3d(0, 0, 0);display:none;opacity:0;z-index:1001;pointer-events:none;top:110%;right:50%;\\\",\\\"X [data-title]:hover:before,X [data-title]:hover:after\\\":\\\"display:block;opacity:1;\\\",\\\"X [data-title]:before\\\":\\\"content:'';position:absolute;background:transparent;border:6px solid transparent;z-index:1002;margin-top:-12px;border-bottom-color:#69738a;margin-right:-6px;\\\",\\\"X [data-title]:after\\\":\\\"content:attr(data-title);background:#69738a;color:white;padding:8px 10px;font-size:12px;line-height:12px;white-space:nowrap;margin-right:-18px;border-radius:2px;\\\",\\\"X .vertical [data-title]:before,X .vertical [data-title]:after\\\":\\\"top:0%;right:200%;\\\",\\\"X .vertical [data-title]:before\\\":\\\"border:6px solid transparent;border-left-color:#69738a;margin-top:8px;margin-right:-30px;\\\",\\\"X .select-outline\\\":\\\"fill:none;stroke-width:1;shape-rendering:crispEdges;\\\",\\\"X .select-outline-1\\\":\\\"stroke:white;\\\",\\\"X .select-outline-2\\\":\\\"stroke:black;stroke-dasharray:2px 2px;\\\",Y:\\\"font-family:'Open Sans';position:fixed;top:50px;right:20px;z-index:10000;font-size:10pt;max-width:180px;\\\",\\\"Y p\\\":\\\"margin:0;\\\",\\\"Y .notifier-note\\\":\\\"min-width:180px;max-width:250px;border:1px solid #fff;z-index:3000;margin:0;background-color:#8c97af;background-color:rgba(140,151,175,0.9);color:#fff;padding:10px;overflow-wrap:break-word;word-wrap:break-word;-ms-hyphens:auto;-webkit-hyphens:auto;hyphens:auto;\\\",\\\"Y .notifier-close\\\":\\\"color:#fff;opacity:0.8;float:right;padding:0 5px;background:none;border:none;font-size:20px;font-weight:bold;line-height:20px;\\\",\\\"Y .notifier-close:hover\\\":\\\"color:#444;text-decoration:none;cursor:pointer;\\\"};for(var a in i){var o=a.replace(/^,/,\\\" ,\\\").replace(/X/g,\\\".js-plotly-plot .plotly\\\").replace(/Y/g,\\\".plotly-notifier\\\");n.addStyleRule(o,i[a])}},{\\\"../src/lib\\\":703}],2:[function(t,e,r){\\\"use strict\\\";e.exports={undo:{width:857.1,height:1e3,path:\\\"m857 350q0-87-34-166t-91-137-137-92-166-34q-96 0-183 41t-147 114q-4 6-4 13t5 11l76 77q6 5 14 5 9-1 13-7 41-53 100-82t126-29q58 0 110 23t92 61 61 91 22 111-22 111-61 91-92 61-110 23q-55 0-105-20t-90-57l77-77q17-16 8-38-10-23-33-23h-250q-15 0-25 11t-11 25v250q0 24 22 33 22 10 39-8l72-72q60 57 137 88t159 31q87 0 166-34t137-92 91-137 34-166z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},home:{width:928.6,height:1e3,path:\\\"m786 296v-267q0-15-11-26t-25-10h-214v214h-143v-214h-214q-15 0-25 10t-11 26v267q0 1 0 2t0 2l321 264 321-264q1-1 1-4z m124 39l-34-41q-5-5-12-6h-2q-7 0-12 3l-386 322-386-322q-7-4-13-4-7 2-12 7l-35 41q-4 5-3 13t6 12l401 334q18 15 42 15t43-15l136-114v109q0 8 5 13t13 5h107q8 0 13-5t5-13v-227l122-102q5-5 6-12t-4-13z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},\\\"camera-retro\\\":{width:1e3,height:1e3,path:\\\"m518 386q0 8-5 13t-13 5q-37 0-63-27t-26-63q0-8 5-13t13-5 12 5 5 13q0 23 16 38t38 16q8 0 13 5t5 13z m125-73q0-59-42-101t-101-42-101 42-42 101 42 101 101 42 101-42 42-101z m-572-320h858v71h-858v-71z m643 320q0 89-62 152t-152 62-151-62-63-152 63-151 151-63 152 63 62 151z m-571 358h214v72h-214v-72z m-72-107h858v143h-462l-36-71h-360v-72z m929 143v-714q0-30-21-51t-50-21h-858q-29 0-50 21t-21 51v714q0 30 21 51t50 21h858q29 0 50-21t21-51z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},zoombox:{width:1e3,height:1e3,path:\\\"m1000-25l-250 251c40 63 63 138 63 218 0 224-182 406-407 406-224 0-406-182-406-406s183-406 407-406c80 0 155 22 218 62l250-250 125 125z m-812 250l0 438 437 0 0-438-437 0z m62 375l313 0 0-312-313 0 0 312z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},pan:{width:1e3,height:1e3,path:\\\"m1000 350l-187 188 0-125-250 0 0 250 125 0-188 187-187-187 125 0 0-250-250 0 0 125-188-188 186-187 0 125 252 0 0-250-125 0 187-188 188 188-125 0 0 250 250 0 0-126 187 188z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},zoom_plus:{width:875,height:1e3,path:\\\"m1 787l0-875 875 0 0 875-875 0z m687-500l-187 0 0-187-125 0 0 187-188 0 0 125 188 0 0 187 125 0 0-187 187 0 0-125z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},zoom_minus:{width:875,height:1e3,path:\\\"m0 788l0-876 875 0 0 876-875 0z m688-500l-500 0 0 125 500 0 0-125z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},autoscale:{width:1e3,height:1e3,path:\\\"m250 850l-187 0-63 0 0-62 0-188 63 0 0 188 187 0 0 62z m688 0l-188 0 0-62 188 0 0-188 62 0 0 188 0 62-62 0z m-875-938l0 188-63 0 0-188 0-62 63 0 187 0 0 62-187 0z m875 188l0-188-188 0 0-62 188 0 62 0 0 62 0 188-62 0z m-125 188l-1 0-93-94-156 156 156 156 92-93 2 0 0 250-250 0 0-2 93-92-156-156-156 156 94 92 0 2-250 0 0-250 0 0 93 93 157-156-157-156-93 94 0 0 0-250 250 0 0 0-94 93 156 157 156-157-93-93 0 0 250 0 0 250z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},tooltip_basic:{width:1500,height:1e3,path:\\\"m375 725l0 0-375-375 375-374 0-1 1125 0 0 750-1125 0z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},tooltip_compare:{width:1125,height:1e3,path:\\\"m187 786l0 2-187-188 188-187 0 0 937 0 0 373-938 0z m0-499l0 1-187-188 188-188 0 0 937 0 0 376-938-1z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},plotlylogo:{width:1542,height:1e3,path:\\\"m0-10h182v-140h-182v140z m228 146h183v-286h-183v286z m225 714h182v-1000h-182v1000z m225-285h182v-715h-182v715z m225 142h183v-857h-183v857z m231-428h182v-429h-182v429z m225-291h183v-138h-183v138z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},\\\"z-axis\\\":{width:1e3,height:1e3,path:\\\"m833 5l-17 108v41l-130-65 130-66c0 0 0 38 0 39 0-1 36-14 39-25 4-15-6-22-16-30-15-12-39-16-56-20-90-22-187-23-279-23-261 0-341 34-353 59 3 60 228 110 228 110-140-8-351-35-351-116 0-120 293-142 474-142 155 0 477 22 477 142 0 50-74 79-163 96z m-374 94c-58-5-99-21-99-40 0-24 65-43 144-43 79 0 143 19 143 43 0 19-42 34-98 40v216h87l-132 135-133-135h88v-216z m167 515h-136v1c16 16 31 34 46 52l84 109v54h-230v-71h124v-1c-16-17-28-32-44-51l-89-114v-51h245v72z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},\\\"3d_rotate\\\":{width:1e3,height:1e3,path:\\\"m922 660c-5 4-9 7-14 11-359 263-580-31-580-31l-102 28 58-400c0 1 1 1 2 2 118 108 351 249 351 249s-62 27-100 42c88 83 222 183 347 122 16-8 30-17 44-27-2 1-4 2-6 4z m36-329c0 0 64 229-88 296-62 27-124 14-175-11 157-78 225-208 249-266 8-19 11-31 11-31 2 5 6 15 11 32-5-13-8-20-8-20z m-775-239c70-31 117-50 198-32-121 80-199 346-199 346l-96-15-58-12c0 0 55-226 155-287z m603 133l-317-139c0 0 4-4 19-14 7-5 24-15 24-15s-177-147-389 4c235-287 536-112 536-112l31-22 100 299-4-1z m-298-153c6-4 14-9 24-15 0 0-17 10-24 15z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},camera:{width:1e3,height:1e3,path:\\\"m500 450c-83 0-150-67-150-150 0-83 67-150 150-150 83 0 150 67 150 150 0 83-67 150-150 150z m400 150h-120c-16 0-34 13-39 29l-31 93c-6 15-23 28-40 28h-340c-16 0-34-13-39-28l-31-94c-6-15-23-28-40-28h-120c-55 0-100-45-100-100v-450c0-55 45-100 100-100h800c55 0 100 45 100 100v450c0 55-45 100-100 100z m-400-550c-138 0-250 112-250 250 0 138 112 250 250 250 138 0 250-112 250-250 0-138-112-250-250-250z m365 380c-19 0-35 16-35 35 0 19 16 35 35 35 19 0 35-16 35-35 0-19-16-35-35-35z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},movie:{width:1e3,height:1e3,path:\\\"m938 413l-188-125c0 37-17 71-44 94 64 38 107 107 107 187 0 121-98 219-219 219-121 0-219-98-219-219 0-61 25-117 66-156h-115c30 33 49 76 49 125 0 103-84 187-187 187s-188-84-188-187c0-57 26-107 65-141-38-22-65-62-65-109v-250c0-70 56-126 125-126h500c69 0 125 56 125 126l188-126c34 0 62 28 62 63v375c0 35-28 63-62 63z m-750 0c-69 0-125 56-125 125s56 125 125 125 125-56 125-125-56-125-125-125z m406-1c-87 0-157 70-157 157 0 86 70 156 157 156s156-70 156-156-70-157-156-157z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},question:{width:857.1,height:1e3,path:\\\"m500 82v107q0 8-5 13t-13 5h-107q-8 0-13-5t-5-13v-107q0-8 5-13t13-5h107q8 0 13 5t5 13z m143 375q0 49-31 91t-77 65-95 23q-136 0-207-119-9-14 4-24l74-55q4-4 10-4 9 0 14 7 30 38 48 51 19 14 48 14 27 0 48-15t21-33q0-21-11-34t-38-25q-35-16-65-48t-29-70v-20q0-8 5-13t13-5h107q8 0 13 5t5 13q0 10 12 27t30 28q18 10 28 16t25 19 25 27 16 34 7 45z m214-107q0-117-57-215t-156-156-215-58-216 58-155 156-58 215 58 215 155 156 216 58 215-58 156-156 57-215z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},disk:{width:857.1,height:1e3,path:\\\"m214-7h429v214h-429v-214z m500 0h72v500q0 8-6 21t-11 20l-157 156q-5 6-19 12t-22 5v-232q0-22-15-38t-38-16h-322q-22 0-37 16t-16 38v232h-72v-714h72v232q0 22 16 38t37 16h465q22 0 38-16t15-38v-232z m-214 518v178q0 8-5 13t-13 5h-107q-7 0-13-5t-5-13v-178q0-8 5-13t13-5h107q7 0 13 5t5 13z m357-18v-518q0-22-15-38t-38-16h-750q-23 0-38 16t-16 38v750q0 22 16 38t38 16h517q23 0 50-12t42-26l156-157q16-15 27-42t11-49z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},lasso:{width:1031,height:1e3,path:\\\"m1018 538c-36 207-290 336-568 286-277-48-473-256-436-463 10-57 36-108 76-151-13-66 11-137 68-183 34-28 75-41 114-42l-55-70 0 0c-2-1-3-2-4-3-10-14-8-34 5-45 14-11 34-8 45 4 1 1 2 3 2 5l0 0 113 140c16 11 31 24 45 40 4 3 6 7 8 11 48-3 100 0 151 9 278 48 473 255 436 462z m-624-379c-80 14-149 48-197 96 42 42 109 47 156 9 33-26 47-66 41-105z m-187-74c-19 16-33 37-39 60 50-32 109-55 174-68-42-25-95-24-135 8z m360 75c-34-7-69-9-102-8 8 62-16 128-68 170-73 59-175 54-244-5-9 20-16 40-20 61-28 159 121 317 333 354s407-60 434-217c28-159-121-318-333-355z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},selectbox:{width:1e3,height:1e3,path:\\\"m0 850l0-143 143 0 0 143-143 0z m286 0l0-143 143 0 0 143-143 0z m285 0l0-143 143 0 0 143-143 0z m286 0l0-143 143 0 0 143-143 0z m-857-286l0-143 143 0 0 143-143 0z m857 0l0-143 143 0 0 143-143 0z m-857-285l0-143 143 0 0 143-143 0z m857 0l0-143 143 0 0 143-143 0z m-857-286l0-143 143 0 0 143-143 0z m286 0l0-143 143 0 0 143-143 0z m285 0l0-143 143 0 0 143-143 0z m286 0l0-143 143 0 0 143-143 0z\\\",transform:\\\"matrix(1 0 0 -1 0 850)\\\"},spikeline:{width:1e3,height:1e3,path:\\\"M512 409c0-57-46-104-103-104-57 0-104 47-104 104 0 57 47 103 104 103 57 0 103-46 103-103z m-327-39l92 0 0 92-92 0z m-185 0l92 0 0 92-92 0z m370-186l92 0 0 93-92 0z m0-184l92 0 0 92-92 0z\\\",transform:\\\"matrix(1.5 0 0 -1.5 0 850)\\\"},newplotlylogo:{name:\\\"newplotlylogo\\\",svg:\\\"<svg xmlns='http://www.w3.org/2000/svg' viewBox='0 0 132 132'><defs><style>.cls-1 {fill: #119dff;} .cls-2 {fill: #25fefd;} .cls-3 {fill: #fff;}</style></defs><title>plotly-logomark</title><g id='symbol'><rect class='cls-1' width='132' height='132' rx='6' ry='6'/><circle class='cls-2' cx='78' cy='54' r='6'/><circle class='cls-2' cx='102' cy='30' r='6'/><circle class='cls-2' cx='78' cy='30' r='6'/><circle class='cls-2' cx='54' cy='30' r='6'/><circle class='cls-2' cx='30' cy='30' r='6'/><circle class='cls-2' cx='30' cy='54' r='6'/><path class='cls-3' d='M30,72a6,6,0,0,0-6,6v24a6,6,0,0,0,12,0V78A6,6,0,0,0,30,72Z'/><path class='cls-3' d='M78,72a6,6,0,0,0-6,6v24a6,6,0,0,0,12,0V78A6,6,0,0,0,78,72Z'/><path class='cls-3' d='M54,48a6,6,0,0,0-6,6v48a6,6,0,0,0,12,0V54A6,6,0,0,0,54,48Z'/><path class='cls-3' d='M102,48a6,6,0,0,0-6,6v48a6,6,0,0,0,12,0V54A6,6,0,0,0,102,48Z'/></g></svg>\\\"}}},{}],3:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/transforms/aggregate\\\")},{\\\"../src/transforms/aggregate\\\":1210}],4:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/bar\\\")},{\\\"../src/traces/bar\\\":848}],5:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/barpolar\\\")},{\\\"../src/traces/barpolar\\\":860}],6:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/box\\\")},{\\\"../src/traces/box\\\":870}],7:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/components/calendars\\\")},{\\\"../src/components/calendars\\\":578}],8:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/candlestick\\\")},{\\\"../src/traces/candlestick\\\":879}],9:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/carpet\\\")},{\\\"../src/traces/carpet\\\":898}],10:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/choropleth\\\")},{\\\"../src/traces/choropleth\\\":912}],11:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/cone\\\")},{\\\"../src/traces/cone\\\":920}],12:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/contour\\\")},{\\\"../src/traces/contour\\\":935}],13:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/contourcarpet\\\")},{\\\"../src/traces/contourcarpet\\\":946}],14:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/core\\\")},{\\\"../src/core\\\":682}],15:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/transforms/filter\\\")},{\\\"../src/transforms/filter\\\":1211}],16:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/funnel\\\")},{\\\"../src/traces/funnel\\\":958}],17:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/funnelarea\\\")},{\\\"../src/traces/funnelarea\\\":967}],18:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/transforms/groupby\\\")},{\\\"../src/transforms/groupby\\\":1212}],19:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/heatmap\\\")},{\\\"../src/traces/heatmap\\\":980}],20:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/heatmapgl\\\")},{\\\"../src/traces/heatmapgl\\\":989}],21:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/histogram\\\")},{\\\"../src/traces/histogram\\\":1001}],22:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/histogram2d\\\")},{\\\"../src/traces/histogram2d\\\":1007}],23:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/histogram2dcontour\\\")},{\\\"../src/traces/histogram2dcontour\\\":1011}],24:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./core\\\");n.register([t(\\\"./bar\\\"),t(\\\"./box\\\"),t(\\\"./heatmap\\\"),t(\\\"./histogram\\\"),t(\\\"./histogram2d\\\"),t(\\\"./histogram2dcontour\\\"),t(\\\"./contour\\\"),t(\\\"./scatterternary\\\"),t(\\\"./violin\\\"),t(\\\"./funnel\\\"),t(\\\"./waterfall\\\"),t(\\\"./pie\\\"),t(\\\"./sunburst\\\"),t(\\\"./funnelarea\\\"),t(\\\"./scatter3d\\\"),t(\\\"./surface\\\"),t(\\\"./isosurface\\\"),t(\\\"./volume\\\"),t(\\\"./mesh3d\\\"),t(\\\"./cone\\\"),t(\\\"./streamtube\\\"),t(\\\"./scattergeo\\\"),t(\\\"./choropleth\\\"),t(\\\"./scattergl\\\"),t(\\\"./splom\\\"),t(\\\"./pointcloud\\\"),t(\\\"./heatmapgl\\\"),t(\\\"./parcoords\\\"),t(\\\"./parcats\\\"),t(\\\"./scattermapbox\\\"),t(\\\"./sankey\\\"),t(\\\"./table\\\"),t(\\\"./carpet\\\"),t(\\\"./scattercarpet\\\"),t(\\\"./contourcarpet\\\"),t(\\\"./ohlc\\\"),t(\\\"./candlestick\\\"),t(\\\"./scatterpolar\\\"),t(\\\"./scatterpolargl\\\"),t(\\\"./barpolar\\\")]),n.register([t(\\\"./aggregate\\\"),t(\\\"./filter\\\"),t(\\\"./groupby\\\"),t(\\\"./sort\\\")]),n.register([t(\\\"./calendars\\\")]),e.exports=n},{\\\"./aggregate\\\":3,\\\"./bar\\\":4,\\\"./barpolar\\\":5,\\\"./box\\\":6,\\\"./calendars\\\":7,\\\"./candlestick\\\":8,\\\"./carpet\\\":9,\\\"./choropleth\\\":10,\\\"./cone\\\":11,\\\"./contour\\\":12,\\\"./contourcarpet\\\":13,\\\"./core\\\":14,\\\"./filter\\\":15,\\\"./funnel\\\":16,\\\"./funnelarea\\\":17,\\\"./groupby\\\":18,\\\"./heatmap\\\":19,\\\"./heatmapgl\\\":20,\\\"./histogram\\\":21,\\\"./histogram2d\\\":22,\\\"./histogram2dcontour\\\":23,\\\"./isosurface\\\":25,\\\"./mesh3d\\\":26,\\\"./ohlc\\\":27,\\\"./parcats\\\":28,\\\"./parcoords\\\":29,\\\"./pie\\\":30,\\\"./pointcloud\\\":31,\\\"./sankey\\\":32,\\\"./scatter3d\\\":33,\\\"./scattercarpet\\\":34,\\\"./scattergeo\\\":35,\\\"./scattergl\\\":36,\\\"./scattermapbox\\\":37,\\\"./scatterpolar\\\":38,\\\"./scatterpolargl\\\":39,\\\"./scatterternary\\\":40,\\\"./sort\\\":41,\\\"./splom\\\":42,\\\"./streamtube\\\":43,\\\"./sunburst\\\":44,\\\"./surface\\\":45,\\\"./table\\\":46,\\\"./violin\\\":47,\\\"./volume\\\":48,\\\"./waterfall\\\":49}],25:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/isosurface\\\")},{\\\"../src/traces/isosurface\\\":1016}],26:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/mesh3d\\\")},{\\\"../src/traces/mesh3d\\\":1021}],27:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/ohlc\\\")},{\\\"../src/traces/ohlc\\\":1026}],28:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/parcats\\\")},{\\\"../src/traces/parcats\\\":1035}],29:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/parcoords\\\")},{\\\"../src/traces/parcoords\\\":1044}],30:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/pie\\\")},{\\\"../src/traces/pie\\\":1055}],31:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/pointcloud\\\")},{\\\"../src/traces/pointcloud\\\":1064}],32:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/sankey\\\")},{\\\"../src/traces/sankey\\\":1070}],33:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/scatter3d\\\")},{\\\"../src/traces/scatter3d\\\":1106}],34:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/scattercarpet\\\")},{\\\"../src/traces/scattercarpet\\\":1112}],35:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/scattergeo\\\")},{\\\"../src/traces/scattergeo\\\":1119}],36:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/scattergl\\\")},{\\\"../src/traces/scattergl\\\":1127}],37:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/scattermapbox\\\")},{\\\"../src/traces/scattermapbox\\\":1133}],38:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/scatterpolar\\\")},{\\\"../src/traces/scatterpolar\\\":1140}],39:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/scatterpolargl\\\")},{\\\"../src/traces/scatterpolargl\\\":1144}],40:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/scatterternary\\\")},{\\\"../src/traces/scatterternary\\\":1150}],41:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/transforms/sort\\\")},{\\\"../src/transforms/sort\\\":1214}],42:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/splom\\\")},{\\\"../src/traces/splom\\\":1155}],43:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/streamtube\\\")},{\\\"../src/traces/streamtube\\\":1160}],44:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/sunburst\\\")},{\\\"../src/traces/sunburst\\\":1166}],45:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/surface\\\")},{\\\"../src/traces/surface\\\":1175}],46:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/table\\\")},{\\\"../src/traces/table\\\":1183}],47:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/violin\\\")},{\\\"../src/traces/violin\\\":1191}],48:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/volume\\\")},{\\\"../src/traces/volume\\\":1199}],49:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"../src/traces/waterfall\\\")},{\\\"../src/traces/waterfall\\\":1205}],50:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=(t=t||{}).eye||[0,0,1],r=t.center||[0,0,0],s=t.up||[0,1,0],l=t.distanceLimits||[0,1/0],c=t.mode||\\\"turntable\\\",u=n(),f=i(),h=a();return u.setDistanceLimits(l[0],l[1]),u.lookAt(0,e,r,s),f.setDistanceLimits(l[0],l[1]),f.lookAt(0,e,r,s),h.setDistanceLimits(l[0],l[1]),h.lookAt(0,e,r,s),new o({turntable:u,orbit:f,matrix:h},c)};var n=t(\\\"turntable-camera-controller\\\"),i=t(\\\"orbit-camera-controller\\\"),a=t(\\\"matrix-camera-controller\\\");function o(t,e){this._controllerNames=Object.keys(t),this._controllerList=this._controllerNames.map(function(e){return t[e]}),this._mode=e,this._active=t[e],this._active||(this._mode=\\\"turntable\\\",this._active=t.turntable),this.modes=this._controllerNames,this.computedMatrix=this._active.computedMatrix,this.computedEye=this._active.computedEye,this.computedUp=this._active.computedUp,this.computedCenter=this._active.computedCenter,this.computedRadius=this._active.computedRadius}var s=o.prototype;[[\\\"flush\\\",1],[\\\"idle\\\",1],[\\\"lookAt\\\",4],[\\\"rotate\\\",4],[\\\"pan\\\",4],[\\\"translate\\\",4],[\\\"setMatrix\\\",2],[\\\"setDistanceLimits\\\",2],[\\\"setDistance\\\",2]].forEach(function(t){for(var e=t[0],r=[],n=0;n<t[1];++n)r.push(\\\"a\\\"+n);var i=\\\"var cc=this._controllerList;for(var i=0;i<cc.length;++i){cc[i].\\\"+t[0]+\\\"(\\\"+r.join()+\\\")}\\\";s[e]=Function.apply(null,r.concat(i))}),s.recalcMatrix=function(t){this._active.recalcMatrix(t)},s.getDistance=function(t){return this._active.getDistance(t)},s.getDistanceLimits=function(t){return this._active.getDistanceLimits(t)},s.lastT=function(){return this._active.lastT()},s.setMode=function(t){if(t!==this._mode){var e=this._controllerNames.indexOf(t);if(!(e<0)){var r=this._active,n=this._controllerList[e],i=Math.max(r.lastT(),n.lastT());r.recalcMatrix(i),n.setMatrix(i,r.computedMatrix),this._active=n,this._mode=t,this.computedMatrix=this._active.computedMatrix,this.computedEye=this._active.computedEye,this.computedUp=this._active.computedUp,this.computedCenter=this._active.computedCenter,this.computedRadius=this._active.computedRadius}}},s.getMode=function(){return this._mode}},{\\\"matrix-camera-controller\\\":428,\\\"orbit-camera-controller\\\":451,\\\"turntable-camera-controller\\\":529}],51:[function(t,e,r){var n,i;n=this,i=function(t,e,r,n){\\\"use strict\\\";function i(t){return t.target.depth}function a(t,e){return t.sourceLinks.length?t.depth:e-1}function o(t){return function(){return t}}function s(t,e){return c(t.source,e.source)||t.index-e.index}function l(t,e){return c(t.target,e.target)||t.index-e.index}function c(t,e){return t.y0-e.y0}function u(t){return t.value}function f(t){return(t.y0+t.y1)/2}function h(t){return f(t.source)*t.value}function p(t){return f(t.target)*t.value}function d(t){return t.index}function g(t){return t.nodes}function v(t){return t.links}function m(t,e){var r=t.get(e);if(!r)throw new Error(\\\"missing: \\\"+e);return r}function y(t){return[t.source.x1,t.y0]}function x(t){return[t.target.x0,t.y1]}t.sankey=function(){var t=0,n=0,i=1,y=1,x=24,b=8,_=d,w=a,k=g,T=v,A=32,M=2/3;function S(){var a={nodes:k.apply(null,arguments),links:T.apply(null,arguments)};return function(t){t.nodes.forEach(function(t,e){t.index=e,t.sourceLinks=[],t.targetLinks=[]});var e=r.map(t.nodes,_);t.links.forEach(function(t,r){t.index=r;var n=t.source,i=t.target;\\\"object\\\"!=typeof n&&(n=t.source=m(e,n)),\\\"object\\\"!=typeof i&&(i=t.target=m(e,i)),n.sourceLinks.push(t),i.targetLinks.push(t)})}(a),function(t){t.nodes.forEach(function(t){t.value=Math.max(e.sum(t.sourceLinks,u),e.sum(t.targetLinks,u))})}(a),function(e){var r,n,a;for(r=e.nodes,n=[],a=0;r.length;++a,r=n,n=[])r.forEach(function(t){t.depth=a,t.sourceLinks.forEach(function(t){n.indexOf(t.target)<0&&n.push(t.target)})});for(r=e.nodes,n=[],a=0;r.length;++a,r=n,n=[])r.forEach(function(t){t.height=a,t.targetLinks.forEach(function(t){n.indexOf(t.source)<0&&n.push(t.source)})});var o=(i-t-x)/(a-1);e.nodes.forEach(function(e){e.x1=(e.x0=t+Math.max(0,Math.min(a-1,Math.floor(w.call(null,e,a))))*o)+x})}(a),function(t){var i=r.nest().key(function(t){return t.x0}).sortKeys(e.ascending).entries(t.nodes).map(function(t){return t.values});(function(){var r=e.max(i,function(t){return t.length}),a=M*(y-n)/(r-1);b>a&&(b=a);var o=e.min(i,function(t){return(y-n-(t.length-1)*b)/e.sum(t,u)});i.forEach(function(t){t.forEach(function(t,e){t.y1=(t.y0=e)+t.value*o})}),t.links.forEach(function(t){t.width=t.value*o})})(),d();for(var a=1,o=A;o>0;--o)l(a*=.99),d(),s(a),d();function s(t){i.forEach(function(r){r.forEach(function(r){if(r.targetLinks.length){var n=(e.sum(r.targetLinks,h)/e.sum(r.targetLinks,u)-f(r))*t;r.y0+=n,r.y1+=n}})})}function l(t){i.slice().reverse().forEach(function(r){r.forEach(function(r){if(r.sourceLinks.length){var n=(e.sum(r.sourceLinks,p)/e.sum(r.sourceLinks,u)-f(r))*t;r.y0+=n,r.y1+=n}})})}function d(){i.forEach(function(t){var e,r,i,a=n,o=t.length;for(t.sort(c),i=0;i<o;++i)e=t[i],(r=a-e.y0)>0&&(e.y0+=r,e.y1+=r),a=e.y1+b;if((r=a-b-y)>0)for(a=e.y0-=r,e.y1-=r,i=o-2;i>=0;--i)e=t[i],(r=e.y1+b-a)>0&&(e.y0-=r,e.y1-=r),a=e.y0})}}(a),E(a),a}function E(t){t.nodes.forEach(function(t){t.sourceLinks.sort(l),t.targetLinks.sort(s)}),t.nodes.forEach(function(t){var e=t.y0,r=e;t.sourceLinks.forEach(function(t){t.y0=e+t.width/2,e+=t.width}),t.targetLinks.forEach(function(t){t.y1=r+t.width/2,r+=t.width})})}return S.update=function(t){return E(t),t},S.nodeId=function(t){return arguments.length?(_=\\\"function\\\"==typeof t?t:o(t),S):_},S.nodeAlign=function(t){return arguments.length?(w=\\\"function\\\"==typeof t?t:o(t),S):w},S.nodeWidth=function(t){return arguments.length?(x=+t,S):x},S.nodePadding=function(t){return arguments.length?(b=+t,S):b},S.nodes=function(t){return arguments.length?(k=\\\"function\\\"==typeof t?t:o(t),S):k},S.links=function(t){return arguments.length?(T=\\\"function\\\"==typeof t?t:o(t),S):T},S.size=function(e){return arguments.length?(t=n=0,i=+e[0],y=+e[1],S):[i-t,y-n]},S.extent=function(e){return arguments.length?(t=+e[0][0],i=+e[1][0],n=+e[0][1],y=+e[1][1],S):[[t,n],[i,y]]},S.iterations=function(t){return arguments.length?(A=+t,S):A},S},t.sankeyCenter=function(t){return t.targetLinks.length?t.depth:t.sourceLinks.length?e.min(t.sourceLinks,i)-1:0},t.sankeyLeft=function(t){return t.depth},t.sankeyRight=function(t,e){return e-1-t.height},t.sankeyJustify=a,t.sankeyLinkHorizontal=function(){return n.linkHorizontal().source(y).target(x)},Object.defineProperty(t,\\\"__esModule\\\",{value:!0})},\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?i(r,t(\\\"d3-array\\\"),t(\\\"d3-collection\\\"),t(\\\"d3-shape\\\")):i(n.d3=n.d3||{},n.d3,n.d3,n.d3)},{\\\"d3-array\\\":145,\\\"d3-collection\\\":146,\\\"d3-shape\\\":155}],52:[function(t,e,r){\\\"use strict\\\";var n=\\\"undefined\\\"==typeof WeakMap?t(\\\"weak-map\\\"):WeakMap,i=t(\\\"gl-buffer\\\"),a=t(\\\"gl-vao\\\"),o=new n;e.exports=function(t){var e=o.get(t),r=e&&(e._triangleBuffer.handle||e._triangleBuffer.buffer);if(!r||!t.isBuffer(r)){var n=i(t,new Float32Array([-1,-1,-1,4,4,-1]));(e=a(t,[{buffer:n,type:t.FLOAT,size:2}]))._triangleBuffer=n,o.set(t,e)}e.bind(),t.drawArrays(t.TRIANGLES,0,3),e.unbind()}},{\\\"gl-buffer\\\":240,\\\"gl-vao\\\":322,\\\"weak-map\\\":539}],53:[function(t,e,r){e.exports=function(t){var e=0,r=0,n=0,i=0;return t.map(function(t){var a=(t=t.slice())[0],o=a.toUpperCase();if(a!=o)switch(t[0]=o,a){case\\\"a\\\":t[6]+=n,t[7]+=i;break;case\\\"v\\\":t[1]+=i;break;case\\\"h\\\":t[1]+=n;break;default:for(var s=1;s<t.length;)t[s++]+=n,t[s++]+=i}switch(o){case\\\"Z\\\":n=e,i=r;break;case\\\"H\\\":n=t[1];break;case\\\"V\\\":i=t[1];break;case\\\"M\\\":n=e=t[1],i=r=t[2];break;default:n=t[t.length-2],i=t[t.length-1]}return t})}},{}],54:[function(t,e,r){var n=t(\\\"pad-left\\\");e.exports=function(t,e,r){e=\\\"number\\\"==typeof e?e:1,r=r||\\\": \\\";var i=t.split(/\\\\r?\\\\n/),a=String(i.length+e-1).length;return i.map(function(t,i){var o=i+e,s=String(o).length,l=n(o,a-s);return l+r+t}).join(\\\"\\\\n\\\")}},{\\\"pad-left\\\":452}],55:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=t.length;if(0===e)return[];if(1===e)return[0];for(var r=t[0].length,n=[t[0]],a=[0],o=1;o<e;++o)if(n.push(t[o]),i(n,r)){if(a.push(o),a.length===r+1)return a}else n.pop();return a};var n=t(\\\"robust-orientation\\\");function i(t,e){for(var r=new Array(e+1),i=0;i<t.length;++i)r[i]=t[i];for(i=0;i<=t.length;++i){for(var a=t.length;a<=e;++a){for(var o=new Array(e),s=0;s<e;++s)o[s]=Math.pow(a+1-i,s);r[a]=o}if(n.apply(void 0,r))return!0}return!1}},{\\\"robust-orientation\\\":497}],56:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){return n(e).filter(function(r){for(var n=new Array(r.length),a=0;a<r.length;++a)n[a]=e[r[a]];return i(n)*t<1})};var n=t(\\\"delaunay-triangulate\\\"),i=t(\\\"circumradius\\\")},{circumradius:107,\\\"delaunay-triangulate\\\":159}],57:[function(t,e,r){e.exports=function(t,e){return i(n(t,e))};var n=t(\\\"alpha-complex\\\"),i=t(\\\"simplicial-complex-boundary\\\")},{\\\"alpha-complex\\\":56,\\\"simplicial-complex-boundary\\\":504}],58:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){if(!t||null==t.length)throw Error(\\\"Argument should be an array\\\");e=null==e?1:Math.floor(e);for(var r=Array(2*e),n=0;n<e;n++){for(var i=-1/0,a=1/0,o=n,s=t.length;o<s;o+=e)t[o]>i&&(i=t[o]),t[o]<a&&(a=t[o]);r[n]=a,r[e+n]=i}return r}},{}],59:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"array-bounds\\\");e.exports=function(t,e,r){if(!t||null==t.length)throw Error(\\\"Argument should be an array\\\");null==e&&(e=1);null==r&&(r=n(t,e));for(var i=0;i<e;i++){var a=r[e+i],o=r[i],s=i,l=t.length;if(a===1/0&&o===-1/0)for(s=i;s<l;s+=e)t[s]=t[s]===a?1:t[s]===o?0:.5;else if(a===1/0)for(s=i;s<l;s+=e)t[s]=t[s]===a?1:0;else if(o===-1/0)for(s=i;s<l;s+=e)t[s]=t[s]===o?0:1;else{var c=a-o;for(s=i;s<l;s+=e)t[s]=0===c?.5:(t[s]-o)/c}}return t}},{\\\"array-bounds\\\":58}],60:[function(t,e,r){e.exports=function(t,e){var r=\\\"number\\\"==typeof t,n=\\\"number\\\"==typeof e;r&&!n?(e=t,t=0):r||n||(t=0,e=0);var i=(e|=0)-(t|=0);if(i<0)throw new Error(\\\"array length must be positive\\\");for(var a=new Array(i),o=0,s=t;o<i;o++,s++)a[o]=s;return a}},{}],61:[function(t,e,r){(function(r){\\\"use strict\\\";function n(t,e){if(t===e)return 0;for(var r=t.length,n=e.length,i=0,a=Math.min(r,n);i<a;++i)if(t[i]!==e[i]){r=t[i],n=e[i];break}return r<n?-1:n<r?1:0}function i(t){return r.Buffer&&\\\"function\\\"==typeof r.Buffer.isBuffer?r.Buffer.isBuffer(t):!(null==t||!t._isBuffer)}var a=t(\\\"util/\\\"),o=Object.prototype.hasOwnProperty,s=Array.prototype.slice,l=\\\"foo\\\"===function(){}.name;function c(t){return Object.prototype.toString.call(t)}function u(t){return!i(t)&&(\\\"function\\\"==typeof r.ArrayBuffer&&(\\\"function\\\"==typeof ArrayBuffer.isView?ArrayBuffer.isView(t):!!t&&(t instanceof DataView||!!(t.buffer&&t.buffer instanceof ArrayBuffer))))}var f=e.exports=m,h=/\\\\s*function\\\\s+([^\\\\(\\\\s]*)\\\\s*/;function p(t){if(a.isFunction(t)){if(l)return t.name;var e=t.toString().match(h);return e&&e[1]}}function d(t,e){return\\\"string\\\"==typeof t?t.length<e?t:t.slice(0,e):t}function g(t){if(l||!a.isFunction(t))return a.inspect(t);var e=p(t);return\\\"[Function\\\"+(e?\\\": \\\"+e:\\\"\\\")+\\\"]\\\"}function v(t,e,r,n,i){throw new f.AssertionError({message:r,actual:t,expected:e,operator:n,stackStartFunction:i})}function m(t,e){t||v(t,!0,e,\\\"==\\\",f.ok)}function y(t,e,r,o){if(t===e)return!0;if(i(t)&&i(e))return 0===n(t,e);if(a.isDate(t)&&a.isDate(e))return t.getTime()===e.getTime();if(a.isRegExp(t)&&a.isRegExp(e))return t.source===e.source&&t.global===e.global&&t.multiline===e.multiline&&t.lastIndex===e.lastIndex&&t.ignoreCase===e.ignoreCase;if(null!==t&&\\\"object\\\"==typeof t||null!==e&&\\\"object\\\"==typeof e){if(u(t)&&u(e)&&c(t)===c(e)&&!(t instanceof Float32Array||t instanceof Float64Array))return 0===n(new Uint8Array(t.buffer),new Uint8Array(e.buffer));if(i(t)!==i(e))return!1;var l=(o=o||{actual:[],expected:[]}).actual.indexOf(t);return-1!==l&&l===o.expected.indexOf(e)||(o.actual.push(t),o.expected.push(e),function(t,e,r,n){if(null==t||null==e)return!1;if(a.isPrimitive(t)||a.isPrimitive(e))return t===e;if(r&&Object.getPrototypeOf(t)!==Object.getPrototypeOf(e))return!1;var i=x(t),o=x(e);if(i&&!o||!i&&o)return!1;if(i)return t=s.call(t),e=s.call(e),y(t,e,r);var l,c,u=w(t),f=w(e);if(u.length!==f.length)return!1;for(u.sort(),f.sort(),c=u.length-1;c>=0;c--)if(u[c]!==f[c])return!1;for(c=u.length-1;c>=0;c--)if(l=u[c],!y(t[l],e[l],r,n))return!1;return!0}(t,e,r,o))}return r?t===e:t==e}function x(t){return\\\"[object Arguments]\\\"==Object.prototype.toString.call(t)}function b(t,e){if(!t||!e)return!1;if(\\\"[object RegExp]\\\"==Object.prototype.toString.call(e))return e.test(t);try{if(t instanceof e)return!0}catch(t){}return!Error.isPrototypeOf(e)&&!0===e.call({},t)}function _(t,e,r,n){var i;if(\\\"function\\\"!=typeof e)throw new TypeError('\\\"block\\\" argument must be a function');\\\"string\\\"==typeof r&&(n=r,r=null),i=function(t){var e;try{t()}catch(t){e=t}return e}(e),n=(r&&r.name?\\\" (\\\"+r.name+\\\").\\\":\\\".\\\")+(n?\\\" \\\"+n:\\\".\\\"),t&&!i&&v(i,r,\\\"Missing expected exception\\\"+n);var o=\\\"string\\\"==typeof n,s=!t&&i&&!r;if((!t&&a.isError(i)&&o&&b(i,r)||s)&&v(i,r,\\\"Got unwanted exception\\\"+n),t&&i&&r&&!b(i,r)||!t&&i)throw i}f.AssertionError=function(t){var e;this.name=\\\"AssertionError\\\",this.actual=t.actual,this.expected=t.expected,this.operator=t.operator,t.message?(this.message=t.message,this.generatedMessage=!1):(this.message=d(g((e=this).actual),128)+\\\" \\\"+e.operator+\\\" \\\"+d(g(e.expected),128),this.generatedMessage=!0);var r=t.stackStartFunction||v;if(Error.captureStackTrace)Error.captureStackTrace(this,r);else{var n=new Error;if(n.stack){var i=n.stack,a=p(r),o=i.indexOf(\\\"\\\\n\\\"+a);if(o>=0){var s=i.indexOf(\\\"\\\\n\\\",o+1);i=i.substring(s+1)}this.stack=i}}},a.inherits(f.AssertionError,Error),f.fail=v,f.ok=m,f.equal=function(t,e,r){t!=e&&v(t,e,r,\\\"==\\\",f.equal)},f.notEqual=function(t,e,r){t==e&&v(t,e,r,\\\"!=\\\",f.notEqual)},f.deepEqual=function(t,e,r){y(t,e,!1)||v(t,e,r,\\\"deepEqual\\\",f.deepEqual)},f.deepStrictEqual=function(t,e,r){y(t,e,!0)||v(t,e,r,\\\"deepStrictEqual\\\",f.deepStrictEqual)},f.notDeepEqual=function(t,e,r){y(t,e,!1)&&v(t,e,r,\\\"notDeepEqual\\\",f.notDeepEqual)},f.notDeepStrictEqual=function t(e,r,n){y(e,r,!0)&&v(e,r,n,\\\"notDeepStrictEqual\\\",t)},f.strictEqual=function(t,e,r){t!==e&&v(t,e,r,\\\"===\\\",f.strictEqual)},f.notStrictEqual=function(t,e,r){t===e&&v(t,e,r,\\\"!==\\\",f.notStrictEqual)},f.throws=function(t,e,r){_(!0,t,e,r)},f.doesNotThrow=function(t,e,r){_(!1,t,e,r)},f.ifError=function(t){if(t)throw t};var w=Object.keys||function(t){var e=[];for(var r in t)o.call(t,r)&&e.push(r);return e}}).call(this,\\\"undefined\\\"!=typeof global?global:\\\"undefined\\\"!=typeof self?self:\\\"undefined\\\"!=typeof window?window:{})},{\\\"util/\\\":64}],62:[function(t,e,r){\\\"function\\\"==typeof Object.create?e.exports=function(t,e){t.super_=e,t.prototype=Object.create(e.prototype,{constructor:{value:t,enumerable:!1,writable:!0,configurable:!0}})}:e.exports=function(t,e){t.super_=e;var r=function(){};r.prototype=e.prototype,t.prototype=new r,t.prototype.constructor=t}},{}],63:[function(t,e,r){e.exports=function(t){return t&&\\\"object\\\"==typeof t&&\\\"function\\\"==typeof t.copy&&\\\"function\\\"==typeof t.fill&&\\\"function\\\"==typeof t.readUInt8}},{}],64:[function(t,e,r){(function(e,n){var i=/%[sdj%]/g;r.format=function(t){if(!m(t)){for(var e=[],r=0;r<arguments.length;r++)e.push(s(arguments[r]));return e.join(\\\" \\\")}r=1;for(var n=arguments,a=n.length,o=String(t).replace(i,function(t){if(\\\"%%\\\"===t)return\\\"%\\\";if(r>=a)return t;switch(t){case\\\"%s\\\":return String(n[r++]);case\\\"%d\\\":return Number(n[r++]);case\\\"%j\\\":try{return JSON.stringify(n[r++])}catch(t){return\\\"[Circular]\\\"}default:return t}}),l=n[r];r<a;l=n[++r])g(l)||!b(l)?o+=\\\" \\\"+l:o+=\\\" \\\"+s(l);return o},r.deprecate=function(t,i){if(y(n.process))return function(){return r.deprecate(t,i).apply(this,arguments)};if(!0===e.noDeprecation)return t;var a=!1;return function(){if(!a){if(e.throwDeprecation)throw new Error(i);e.traceDeprecation?console.trace(i):console.error(i),a=!0}return t.apply(this,arguments)}};var a,o={};function s(t,e){var n={seen:[],stylize:c};return arguments.length>=3&&(n.depth=arguments[2]),arguments.length>=4&&(n.colors=arguments[3]),d(e)?n.showHidden=e:e&&r._extend(n,e),y(n.showHidden)&&(n.showHidden=!1),y(n.depth)&&(n.depth=2),y(n.colors)&&(n.colors=!1),y(n.customInspect)&&(n.customInspect=!0),n.colors&&(n.stylize=l),u(n,t,n.depth)}function l(t,e){var r=s.styles[e];return r?\\\"\\\\x1b[\\\"+s.colors[r][0]+\\\"m\\\"+t+\\\"\\\\x1b[\\\"+s.colors[r][1]+\\\"m\\\":t}function c(t,e){return t}function u(t,e,n){if(t.customInspect&&e&&k(e.inspect)&&e.inspect!==r.inspect&&(!e.constructor||e.constructor.prototype!==e)){var i=e.inspect(n,t);return m(i)||(i=u(t,i,n)),i}var a=function(t,e){if(y(e))return t.stylize(\\\"undefined\\\",\\\"undefined\\\");if(m(e)){var r=\\\"'\\\"+JSON.stringify(e).replace(/^\\\"|\\\"$/g,\\\"\\\").replace(/'/g,\\\"\\\\\\\\'\\\").replace(/\\\\\\\\\\\"/g,'\\\"')+\\\"'\\\";return t.stylize(r,\\\"string\\\")}if(v(e))return t.stylize(\\\"\\\"+e,\\\"number\\\");if(d(e))return t.stylize(\\\"\\\"+e,\\\"boolean\\\");if(g(e))return t.stylize(\\\"null\\\",\\\"null\\\")}(t,e);if(a)return a;var o=Object.keys(e),s=function(t){var e={};return t.forEach(function(t,r){e[t]=!0}),e}(o);if(t.showHidden&&(o=Object.getOwnPropertyNames(e)),w(e)&&(o.indexOf(\\\"message\\\")>=0||o.indexOf(\\\"description\\\")>=0))return f(e);if(0===o.length){if(k(e)){var l=e.name?\\\": \\\"+e.name:\\\"\\\";return t.stylize(\\\"[Function\\\"+l+\\\"]\\\",\\\"special\\\")}if(x(e))return t.stylize(RegExp.prototype.toString.call(e),\\\"regexp\\\");if(_(e))return t.stylize(Date.prototype.toString.call(e),\\\"date\\\");if(w(e))return f(e)}var c,b=\\\"\\\",T=!1,A=[\\\"{\\\",\\\"}\\\"];(p(e)&&(T=!0,A=[\\\"[\\\",\\\"]\\\"]),k(e))&&(b=\\\" [Function\\\"+(e.name?\\\": \\\"+e.name:\\\"\\\")+\\\"]\\\");return x(e)&&(b=\\\" \\\"+RegExp.prototype.toString.call(e)),_(e)&&(b=\\\" \\\"+Date.prototype.toUTCString.call(e)),w(e)&&(b=\\\" \\\"+f(e)),0!==o.length||T&&0!=e.length?n<0?x(e)?t.stylize(RegExp.prototype.toString.call(e),\\\"regexp\\\"):t.stylize(\\\"[Object]\\\",\\\"special\\\"):(t.seen.push(e),c=T?function(t,e,r,n,i){for(var a=[],o=0,s=e.length;o<s;++o)S(e,String(o))?a.push(h(t,e,r,n,String(o),!0)):a.push(\\\"\\\");return i.forEach(function(i){i.match(/^\\\\d+$/)||a.push(h(t,e,r,n,i,!0))}),a}(t,e,n,s,o):o.map(function(r){return h(t,e,n,s,r,T)}),t.seen.pop(),function(t,e,r){if(t.reduce(function(t,e){return 0,e.indexOf(\\\"\\\\n\\\")>=0&&0,t+e.replace(/\\\\u001b\\\\[\\\\d\\\\d?m/g,\\\"\\\").length+1},0)>60)return r[0]+(\\\"\\\"===e?\\\"\\\":e+\\\"\\\\n \\\")+\\\" \\\"+t.join(\\\",\\\\n  \\\")+\\\" \\\"+r[1];return r[0]+e+\\\" \\\"+t.join(\\\", \\\")+\\\" \\\"+r[1]}(c,b,A)):A[0]+b+A[1]}function f(t){return\\\"[\\\"+Error.prototype.toString.call(t)+\\\"]\\\"}function h(t,e,r,n,i,a){var o,s,l;if((l=Object.getOwnPropertyDescriptor(e,i)||{value:e[i]}).get?s=l.set?t.stylize(\\\"[Getter/Setter]\\\",\\\"special\\\"):t.stylize(\\\"[Getter]\\\",\\\"special\\\"):l.set&&(s=t.stylize(\\\"[Setter]\\\",\\\"special\\\")),S(n,i)||(o=\\\"[\\\"+i+\\\"]\\\"),s||(t.seen.indexOf(l.value)<0?(s=g(r)?u(t,l.value,null):u(t,l.value,r-1)).indexOf(\\\"\\\\n\\\")>-1&&(s=a?s.split(\\\"\\\\n\\\").map(function(t){return\\\"  \\\"+t}).join(\\\"\\\\n\\\").substr(2):\\\"\\\\n\\\"+s.split(\\\"\\\\n\\\").map(function(t){return\\\"   \\\"+t}).join(\\\"\\\\n\\\")):s=t.stylize(\\\"[Circular]\\\",\\\"special\\\")),y(o)){if(a&&i.match(/^\\\\d+$/))return s;(o=JSON.stringify(\\\"\\\"+i)).match(/^\\\"([a-zA-Z_][a-zA-Z_0-9]*)\\\"$/)?(o=o.substr(1,o.length-2),o=t.stylize(o,\\\"name\\\")):(o=o.replace(/'/g,\\\"\\\\\\\\'\\\").replace(/\\\\\\\\\\\"/g,'\\\"').replace(/(^\\\"|\\\"$)/g,\\\"'\\\"),o=t.stylize(o,\\\"string\\\"))}return o+\\\": \\\"+s}function p(t){return Array.isArray(t)}function d(t){return\\\"boolean\\\"==typeof t}function g(t){return null===t}function v(t){return\\\"number\\\"==typeof t}function m(t){return\\\"string\\\"==typeof t}function y(t){return void 0===t}function x(t){return b(t)&&\\\"[object RegExp]\\\"===T(t)}function b(t){return\\\"object\\\"==typeof t&&null!==t}function _(t){return b(t)&&\\\"[object Date]\\\"===T(t)}function w(t){return b(t)&&(\\\"[object Error]\\\"===T(t)||t instanceof Error)}function k(t){return\\\"function\\\"==typeof t}function T(t){return Object.prototype.toString.call(t)}function A(t){return t<10?\\\"0\\\"+t.toString(10):t.toString(10)}r.debuglog=function(t){if(y(a)&&(a=e.env.NODE_DEBUG||\\\"\\\"),t=t.toUpperCase(),!o[t])if(new RegExp(\\\"\\\\\\\\b\\\"+t+\\\"\\\\\\\\b\\\",\\\"i\\\").test(a)){var n=e.pid;o[t]=function(){var e=r.format.apply(r,arguments);console.error(\\\"%s %d: %s\\\",t,n,e)}}else o[t]=function(){};return o[t]},r.inspect=s,s.colors={bold:[1,22],italic:[3,23],underline:[4,24],inverse:[7,27],white:[37,39],grey:[90,39],black:[30,39],blue:[34,39],cyan:[36,39],green:[32,39],magenta:[35,39],red:[31,39],yellow:[33,39]},s.styles={special:\\\"cyan\\\",number:\\\"yellow\\\",boolean:\\\"yellow\\\",undefined:\\\"grey\\\",null:\\\"bold\\\",string:\\\"green\\\",date:\\\"magenta\\\",regexp:\\\"red\\\"},r.isArray=p,r.isBoolean=d,r.isNull=g,r.isNullOrUndefined=function(t){return null==t},r.isNumber=v,r.isString=m,r.isSymbol=function(t){return\\\"symbol\\\"==typeof t},r.isUndefined=y,r.isRegExp=x,r.isObject=b,r.isDate=_,r.isError=w,r.isFunction=k,r.isPrimitive=function(t){return null===t||\\\"boolean\\\"==typeof t||\\\"number\\\"==typeof t||\\\"string\\\"==typeof t||\\\"symbol\\\"==typeof t||\\\"undefined\\\"==typeof t},r.isBuffer=t(\\\"./support/isBuffer\\\");var M=[\\\"Jan\\\",\\\"Feb\\\",\\\"Mar\\\",\\\"Apr\\\",\\\"May\\\",\\\"Jun\\\",\\\"Jul\\\",\\\"Aug\\\",\\\"Sep\\\",\\\"Oct\\\",\\\"Nov\\\",\\\"Dec\\\"];function S(t,e){return Object.prototype.hasOwnProperty.call(t,e)}r.log=function(){var t,e;console.log(\\\"%s - %s\\\",(t=new Date,e=[A(t.getHours()),A(t.getMinutes()),A(t.getSeconds())].join(\\\":\\\"),[t.getDate(),M[t.getMonth()],e].join(\\\" \\\")),r.format.apply(r,arguments))},r.inherits=t(\\\"inherits\\\"),r._extend=function(t,e){if(!e||!b(e))return t;for(var r=Object.keys(e),n=r.length;n--;)t[r[n]]=e[r[n]];return t}}).call(this,t(\\\"_process\\\"),\\\"undefined\\\"!=typeof global?global:\\\"undefined\\\"!=typeof self?self:\\\"undefined\\\"!=typeof window?window:{})},{\\\"./support/isBuffer\\\":63,_process:477,inherits:62}],65:[function(t,e,r){e.exports=function(t){return atob(t)}},{}],66:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){for(var r=e.length,a=new Array(r+1),o=0;o<r;++o){for(var s=new Array(r+1),l=0;l<=r;++l)s[l]=t[l][o];a[o]=s}a[r]=new Array(r+1);for(var o=0;o<=r;++o)a[r][o]=1;for(var c=new Array(r+1),o=0;o<r;++o)c[o]=e[o];c[r]=1;var u=n(a,c),f=i(u[r+1]);0===f&&(f=1);for(var h=new Array(r+1),o=0;o<=r;++o)h[o]=i(u[o])/f;return h};var n=t(\\\"robust-linear-solve\\\");function i(t){for(var e=0,r=0;r<t.length;++r)e+=t[r];return e}},{\\\"robust-linear-solve\\\":496}],67:[function(t,e,r){\\\"use strict\\\";r.byteLength=function(t){var e=c(t),r=e[0],n=e[1];return 3*(r+n)/4-n},r.toByteArray=function(t){for(var e,r=c(t),n=r[0],o=r[1],s=new a(function(t,e,r){return 3*(e+r)/4-r}(0,n,o)),l=0,u=o>0?n-4:n,f=0;f<u;f+=4)e=i[t.charCodeAt(f)]<<18|i[t.charCodeAt(f+1)]<<12|i[t.charCodeAt(f+2)]<<6|i[t.charCodeAt(f+3)],s[l++]=e>>16&255,s[l++]=e>>8&255,s[l++]=255&e;2===o&&(e=i[t.charCodeAt(f)]<<2|i[t.charCodeAt(f+1)]>>4,s[l++]=255&e);1===o&&(e=i[t.charCodeAt(f)]<<10|i[t.charCodeAt(f+1)]<<4|i[t.charCodeAt(f+2)]>>2,s[l++]=e>>8&255,s[l++]=255&e);return s},r.fromByteArray=function(t){for(var e,r=t.length,i=r%3,a=[],o=0,s=r-i;o<s;o+=16383)a.push(u(t,o,o+16383>s?s:o+16383));1===i?(e=t[r-1],a.push(n[e>>2]+n[e<<4&63]+\\\"==\\\")):2===i&&(e=(t[r-2]<<8)+t[r-1],a.push(n[e>>10]+n[e>>4&63]+n[e<<2&63]+\\\"=\\\"));return a.join(\\\"\\\")};for(var n=[],i=[],a=\\\"undefined\\\"!=typeof Uint8Array?Uint8Array:Array,o=\\\"ABCDEFGHIJKLMNOPQRSTUVWXYZabcdefghijklmnopqrstuvwxyz0123456789+/\\\",s=0,l=o.length;s<l;++s)n[s]=o[s],i[o.charCodeAt(s)]=s;function c(t){var e=t.length;if(e%4>0)throw new Error(\\\"Invalid string. Length must be a multiple of 4\\\");var r=t.indexOf(\\\"=\\\");return-1===r&&(r=e),[r,r===e?0:4-r%4]}function u(t,e,r){for(var i,a,o=[],s=e;s<r;s+=3)i=(t[s]<<16&16711680)+(t[s+1]<<8&65280)+(255&t[s+2]),o.push(n[(a=i)>>18&63]+n[a>>12&63]+n[a>>6&63]+n[63&a]);return o.join(\\\"\\\")}i[\\\"-\\\".charCodeAt(0)]=62,i[\\\"_\\\".charCodeAt(0)]=63},{}],68:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./lib/rationalize\\\");e.exports=function(t,e){return n(t[0].mul(e[1]).add(e[0].mul(t[1])),t[1].mul(e[1]))}},{\\\"./lib/rationalize\\\":78}],69:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){return t[0].mul(e[1]).cmp(e[0].mul(t[1]))}},{}],70:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./lib/rationalize\\\");e.exports=function(t,e){return n(t[0].mul(e[1]),t[1].mul(e[0]))}},{\\\"./lib/rationalize\\\":78}],71:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./is-rat\\\"),i=t(\\\"./lib/is-bn\\\"),a=t(\\\"./lib/num-to-bn\\\"),o=t(\\\"./lib/str-to-bn\\\"),s=t(\\\"./lib/rationalize\\\"),l=t(\\\"./div\\\");e.exports=function t(e,r){if(n(e))return r?l(e,t(r)):[e[0].clone(),e[1].clone()];var c=0;var u,f;if(i(e))u=e.clone();else if(\\\"string\\\"==typeof e)u=o(e);else{if(0===e)return[a(0),a(1)];if(e===Math.floor(e))u=a(e);else{for(;e!==Math.floor(e);)e*=Math.pow(2,256),c-=256;u=a(e)}}if(n(r))u.mul(r[1]),f=r[0].clone();else if(i(r))f=r.clone();else if(\\\"string\\\"==typeof r)f=o(r);else if(r)if(r===Math.floor(r))f=a(r);else{for(;r!==Math.floor(r);)r*=Math.pow(2,256),c+=256;f=a(r)}else f=a(1);c>0?u=u.ushln(c):c<0&&(f=f.ushln(-c));return s(u,f)}},{\\\"./div\\\":70,\\\"./is-rat\\\":72,\\\"./lib/is-bn\\\":76,\\\"./lib/num-to-bn\\\":77,\\\"./lib/rationalize\\\":78,\\\"./lib/str-to-bn\\\":79}],72:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./lib/is-bn\\\");e.exports=function(t){return Array.isArray(t)&&2===t.length&&n(t[0])&&n(t[1])}},{\\\"./lib/is-bn\\\":76}],73:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"bn.js\\\");e.exports=function(t){return t.cmp(new n(0))}},{\\\"bn.js\\\":87}],74:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./bn-sign\\\");e.exports=function(t){var e=t.length,r=t.words,i=0;if(1===e)i=r[0];else if(2===e)i=r[0]+67108864*r[1];else for(var a=0;a<e;a++){var o=r[a];i+=o*Math.pow(67108864,a)}return n(t)*i}},{\\\"./bn-sign\\\":73}],75:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"double-bits\\\"),i=t(\\\"bit-twiddle\\\").countTrailingZeros;e.exports=function(t){var e=i(n.lo(t));if(e<32)return e;var r=i(n.hi(t));if(r>20)return 52;return r+32}},{\\\"bit-twiddle\\\":85,\\\"double-bits\\\":161}],76:[function(t,e,r){\\\"use strict\\\";t(\\\"bn.js\\\");e.exports=function(t){return t&&\\\"object\\\"==typeof t&&Boolean(t.words)}},{\\\"bn.js\\\":87}],77:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"bn.js\\\"),i=t(\\\"double-bits\\\");e.exports=function(t){var e=i.exponent(t);return e<52?new n(t):new n(t*Math.pow(2,52-e)).ushln(e-52)}},{\\\"bn.js\\\":87,\\\"double-bits\\\":161}],78:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./num-to-bn\\\"),i=t(\\\"./bn-sign\\\");e.exports=function(t,e){var r=i(t),a=i(e);if(0===r)return[n(0),n(1)];if(0===a)return[n(0),n(0)];a<0&&(t=t.neg(),e=e.neg());var o=t.gcd(e);if(o.cmpn(1))return[t.div(o),e.div(o)];return[t,e]}},{\\\"./bn-sign\\\":73,\\\"./num-to-bn\\\":77}],79:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"bn.js\\\");e.exports=function(t){return new n(t)}},{\\\"bn.js\\\":87}],80:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./lib/rationalize\\\");e.exports=function(t,e){return n(t[0].mul(e[0]),t[1].mul(e[1]))}},{\\\"./lib/rationalize\\\":78}],81:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./lib/bn-sign\\\");e.exports=function(t){return n(t[0])*n(t[1])}},{\\\"./lib/bn-sign\\\":73}],82:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./lib/rationalize\\\");e.exports=function(t,e){return n(t[0].mul(e[1]).sub(t[1].mul(e[0])),t[1].mul(e[1]))}},{\\\"./lib/rationalize\\\":78}],83:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./lib/bn-to-num\\\"),i=t(\\\"./lib/ctz\\\");e.exports=function(t){var e=t[0],r=t[1];if(0===e.cmpn(0))return 0;var a=e.abs().divmod(r.abs()),o=a.div,s=n(o),l=a.mod,c=e.negative!==r.negative?-1:1;if(0===l.cmpn(0))return c*s;if(s){var u=i(s)+4,f=n(l.ushln(u).divRound(r));return c*(s+f*Math.pow(2,-u))}var h=r.bitLength()-l.bitLength()+53,f=n(l.ushln(h).divRound(r));return h<1023?c*f*Math.pow(2,-h):(f*=Math.pow(2,-1023),c*f*Math.pow(2,1023-h))}},{\\\"./lib/bn-to-num\\\":74,\\\"./lib/ctz\\\":75}],84:[function(t,e,r){\\\"use strict\\\";function n(t,e,r,n,i,a){var o=[\\\"function \\\",t,\\\"(a,l,h,\\\",n.join(\\\",\\\"),\\\"){\\\",a?\\\"\\\":\\\"var i=\\\",r?\\\"l-1\\\":\\\"h+1\\\",\\\";while(l<=h){var m=(l+h)>>>1,x=a\\\",i?\\\".get(m)\\\":\\\"[m]\\\"];return a?e.indexOf(\\\"c\\\")<0?o.push(\\\";if(x===y){return m}else if(x<=y){\\\"):o.push(\\\";var p=c(x,y);if(p===0){return m}else if(p<=0){\\\"):o.push(\\\";if(\\\",e,\\\"){i=m;\\\"),r?o.push(\\\"l=m+1}else{h=m-1}\\\"):o.push(\\\"h=m-1}else{l=m+1}\\\"),o.push(\\\"}\\\"),a?o.push(\\\"return -1};\\\"):o.push(\\\"return i};\\\"),o.join(\\\"\\\")}function i(t,e,r,i){return new Function([n(\\\"A\\\",\\\"x\\\"+t+\\\"y\\\",e,[\\\"y\\\"],!1,i),n(\\\"B\\\",\\\"x\\\"+t+\\\"y\\\",e,[\\\"y\\\"],!0,i),n(\\\"P\\\",\\\"c(x,y)\\\"+t+\\\"0\\\",e,[\\\"y\\\",\\\"c\\\"],!1,i),n(\\\"Q\\\",\\\"c(x,y)\\\"+t+\\\"0\\\",e,[\\\"y\\\",\\\"c\\\"],!0,i),\\\"function dispatchBsearch\\\",r,\\\"(a,y,c,l,h){if(a.shape){if(typeof(c)==='function'){return Q(a,(l===undefined)?0:l|0,(h===undefined)?a.shape[0]-1:h|0,y,c)}else{return B(a,(c===undefined)?0:c|0,(l===undefined)?a.shape[0]-1:l|0,y)}}else{if(typeof(c)==='function'){return P(a,(l===undefined)?0:l|0,(h===undefined)?a.length-1:h|0,y,c)}else{return A(a,(c===undefined)?0:c|0,(l===undefined)?a.length-1:l|0,y)}}}return dispatchBsearch\\\",r].join(\\\"\\\"))()}e.exports={ge:i(\\\">=\\\",!1,\\\"GE\\\"),gt:i(\\\">\\\",!1,\\\"GT\\\"),lt:i(\\\"<\\\",!0,\\\"LT\\\"),le:i(\\\"<=\\\",!0,\\\"LE\\\"),eq:i(\\\"-\\\",!0,\\\"EQ\\\",!0)}},{}],85:[function(t,e,r){\\\"use strict\\\";function n(t){var e=32;return(t&=-t)&&e--,65535&t&&(e-=16),16711935&t&&(e-=8),252645135&t&&(e-=4),858993459&t&&(e-=2),1431655765&t&&(e-=1),e}r.INT_BITS=32,r.INT_MAX=2147483647,r.INT_MIN=-1<<31,r.sign=function(t){return(t>0)-(t<0)},r.abs=function(t){var e=t>>31;return(t^e)-e},r.min=function(t,e){return e^(t^e)&-(t<e)},r.max=function(t,e){return t^(t^e)&-(t<e)},r.isPow2=function(t){return!(t&t-1||!t)},r.log2=function(t){var e,r;return e=(t>65535)<<4,e|=r=((t>>>=e)>255)<<3,e|=r=((t>>>=r)>15)<<2,(e|=r=((t>>>=r)>3)<<1)|(t>>>=r)>>1},r.log10=function(t){return t>=1e9?9:t>=1e8?8:t>=1e7?7:t>=1e6?6:t>=1e5?5:t>=1e4?4:t>=1e3?3:t>=100?2:t>=10?1:0},r.popCount=function(t){return 16843009*((t=(858993459&(t-=t>>>1&1431655765))+(t>>>2&858993459))+(t>>>4)&252645135)>>>24},r.countTrailingZeros=n,r.nextPow2=function(t){return t+=0===t,--t,t|=t>>>1,t|=t>>>2,t|=t>>>4,t|=t>>>8,(t|=t>>>16)+1},r.prevPow2=function(t){return t|=t>>>1,t|=t>>>2,t|=t>>>4,t|=t>>>8,(t|=t>>>16)-(t>>>1)},r.parity=function(t){return t^=t>>>16,t^=t>>>8,t^=t>>>4,27030>>>(t&=15)&1};var i=new Array(256);!function(t){for(var e=0;e<256;++e){var r=e,n=e,i=7;for(r>>>=1;r;r>>>=1)n<<=1,n|=1&r,--i;t[e]=n<<i&255}}(i),r.reverse=function(t){return i[255&t]<<24|i[t>>>8&255]<<16|i[t>>>16&255]<<8|i[t>>>24&255]},r.interleave2=function(t,e){return(t=1431655765&((t=858993459&((t=252645135&((t=16711935&((t&=65535)|t<<8))|t<<4))|t<<2))|t<<1))|(e=1431655765&((e=858993459&((e=252645135&((e=16711935&((e&=65535)|e<<8))|e<<4))|e<<2))|e<<1))<<1},r.deinterleave2=function(t,e){return(t=65535&((t=16711935&((t=252645135&((t=858993459&((t=t>>>e&1431655765)|t>>>1))|t>>>2))|t>>>4))|t>>>16))<<16>>16},r.interleave3=function(t,e,r){return t=1227133513&((t=3272356035&((t=251719695&((t=4278190335&((t&=1023)|t<<16))|t<<8))|t<<4))|t<<2),(t|=(e=1227133513&((e=3272356035&((e=251719695&((e=4278190335&((e&=1023)|e<<16))|e<<8))|e<<4))|e<<2))<<1)|(r=1227133513&((r=3272356035&((r=251719695&((r=4278190335&((r&=1023)|r<<16))|r<<8))|r<<4))|r<<2))<<2},r.deinterleave3=function(t,e){return(t=1023&((t=4278190335&((t=251719695&((t=3272356035&((t=t>>>e&1227133513)|t>>>2))|t>>>4))|t>>>8))|t>>>16))<<22>>22},r.nextCombination=function(t){var e=t|t-1;return e+1|(~e&-~e)-1>>>n(t)+1}},{}],86:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"clamp\\\");e.exports=function(t,e){e||(e={});var r,o,s,l,c,u,f,h,p,d,g,v=null==e.cutoff?.25:e.cutoff,m=null==e.radius?8:e.radius,y=e.channel||0;if(ArrayBuffer.isView(t)||Array.isArray(t)){if(!e.width||!e.height)throw Error(\\\"For raw data width and height should be provided by options\\\");r=e.width,o=e.height,l=t,u=e.stride?e.stride:Math.floor(t.length/r/o)}else window.HTMLCanvasElement&&t instanceof window.HTMLCanvasElement?(f=(h=t).getContext(\\\"2d\\\"),r=h.width,o=h.height,p=f.getImageData(0,0,r,o),l=p.data,u=4):window.CanvasRenderingContext2D&&t instanceof window.CanvasRenderingContext2D?(h=t.canvas,f=t,r=h.width,o=h.height,p=f.getImageData(0,0,r,o),l=p.data,u=4):window.ImageData&&t instanceof window.ImageData&&(p=t,r=t.width,o=t.height,l=p.data,u=4);if(s=Math.max(r,o),window.Uint8ClampedArray&&l instanceof window.Uint8ClampedArray||window.Uint8Array&&l instanceof window.Uint8Array)for(c=l,l=Array(r*o),d=0,g=c.length;d<g;d++)l[d]=c[d*u+y]/255;else if(1!==u)throw Error(\\\"Raw data can have only 1 value per pixel\\\");var x=Array(r*o),b=Array(r*o),_=Array(s),w=Array(s),k=Array(s+1),T=Array(s);for(d=0,g=r*o;d<g;d++){var A=l[d];x[d]=1===A?0:0===A?i:Math.pow(Math.max(0,.5-A),2),b[d]=1===A?i:0===A?0:Math.pow(Math.max(0,A-.5),2)}a(x,r,o,_,w,T,k),a(b,r,o,_,w,T,k);var M=window.Float32Array?new Float32Array(r*o):new Array(r*o);for(d=0,g=r*o;d<g;d++)M[d]=n(1-((x[d]-b[d])/m+v),0,1);return M};var i=1e20;function a(t,e,r,n,i,a,s){for(var l=0;l<e;l++){for(var c=0;c<r;c++)n[c]=t[c*e+l];for(o(n,i,a,s,r),c=0;c<r;c++)t[c*e+l]=i[c]}for(c=0;c<r;c++){for(l=0;l<e;l++)n[l]=t[c*e+l];for(o(n,i,a,s,e),l=0;l<e;l++)t[c*e+l]=Math.sqrt(i[l])}}function o(t,e,r,n,a){r[0]=0,n[0]=-i,n[1]=+i;for(var o=1,s=0;o<a;o++){for(var l=(t[o]+o*o-(t[r[s]]+r[s]*r[s]))/(2*o-2*r[s]);l<=n[s];)s--,l=(t[o]+o*o-(t[r[s]]+r[s]*r[s]))/(2*o-2*r[s]);r[++s]=o,n[s]=l,n[s+1]=+i}for(o=0,s=0;o<a;o++){for(;n[s+1]<o;)s++;e[o]=(o-r[s])*(o-r[s])+t[r[s]]}}},{clamp:108}],87:[function(t,e,r){!function(e,r){\\\"use strict\\\";function n(t,e){if(!t)throw new Error(e||\\\"Assertion failed\\\")}function i(t,e){t.super_=e;var r=function(){};r.prototype=e.prototype,t.prototype=new r,t.prototype.constructor=t}function a(t,e,r){if(a.isBN(t))return t;this.negative=0,this.words=null,this.length=0,this.red=null,null!==t&&(\\\"le\\\"!==e&&\\\"be\\\"!==e||(r=e,e=10),this._init(t||0,e||10,r||\\\"be\\\"))}var o;\\\"object\\\"==typeof e?e.exports=a:r.BN=a,a.BN=a,a.wordSize=26;try{o=t(\\\"buffer\\\").Buffer}catch(t){}function s(t,e,r){for(var n=0,i=Math.min(t.length,r),a=e;a<i;a++){var o=t.charCodeAt(a)-48;n<<=4,n|=o>=49&&o<=54?o-49+10:o>=17&&o<=22?o-17+10:15&o}return n}function l(t,e,r,n){for(var i=0,a=Math.min(t.length,r),o=e;o<a;o++){var s=t.charCodeAt(o)-48;i*=n,i+=s>=49?s-49+10:s>=17?s-17+10:s}return i}a.isBN=function(t){return t instanceof a||null!==t&&\\\"object\\\"==typeof t&&t.constructor.wordSize===a.wordSize&&Array.isArray(t.words)},a.max=function(t,e){return t.cmp(e)>0?t:e},a.min=function(t,e){return t.cmp(e)<0?t:e},a.prototype._init=function(t,e,r){if(\\\"number\\\"==typeof t)return this._initNumber(t,e,r);if(\\\"object\\\"==typeof t)return this._initArray(t,e,r);\\\"hex\\\"===e&&(e=16),n(e===(0|e)&&e>=2&&e<=36);var i=0;\\\"-\\\"===(t=t.toString().replace(/\\\\s+/g,\\\"\\\"))[0]&&i++,16===e?this._parseHex(t,i):this._parseBase(t,e,i),\\\"-\\\"===t[0]&&(this.negative=1),this.strip(),\\\"le\\\"===r&&this._initArray(this.toArray(),e,r)},a.prototype._initNumber=function(t,e,r){t<0&&(this.negative=1,t=-t),t<67108864?(this.words=[67108863&t],this.length=1):t<4503599627370496?(this.words=[67108863&t,t/67108864&67108863],this.length=2):(n(t<9007199254740992),this.words=[67108863&t,t/67108864&67108863,1],this.length=3),\\\"le\\\"===r&&this._initArray(this.toArray(),e,r)},a.prototype._initArray=function(t,e,r){if(n(\\\"number\\\"==typeof t.length),t.length<=0)return this.words=[0],this.length=1,this;this.length=Math.ceil(t.length/3),this.words=new Array(this.length);for(var i=0;i<this.length;i++)this.words[i]=0;var a,o,s=0;if(\\\"be\\\"===r)for(i=t.length-1,a=0;i>=0;i-=3)o=t[i]|t[i-1]<<8|t[i-2]<<16,this.words[a]|=o<<s&67108863,this.words[a+1]=o>>>26-s&67108863,(s+=24)>=26&&(s-=26,a++);else if(\\\"le\\\"===r)for(i=0,a=0;i<t.length;i+=3)o=t[i]|t[i+1]<<8|t[i+2]<<16,this.words[a]|=o<<s&67108863,this.words[a+1]=o>>>26-s&67108863,(s+=24)>=26&&(s-=26,a++);return this.strip()},a.prototype._parseHex=function(t,e){this.length=Math.ceil((t.length-e)/6),this.words=new Array(this.length);for(var r=0;r<this.length;r++)this.words[r]=0;var n,i,a=0;for(r=t.length-6,n=0;r>=e;r-=6)i=s(t,r,r+6),this.words[n]|=i<<a&67108863,this.words[n+1]|=i>>>26-a&4194303,(a+=24)>=26&&(a-=26,n++);r+6!==e&&(i=s(t,e,r+6),this.words[n]|=i<<a&67108863,this.words[n+1]|=i>>>26-a&4194303),this.strip()},a.prototype._parseBase=function(t,e,r){this.words=[0],this.length=1;for(var n=0,i=1;i<=67108863;i*=e)n++;n--,i=i/e|0;for(var a=t.length-r,o=a%n,s=Math.min(a,a-o)+r,c=0,u=r;u<s;u+=n)c=l(t,u,u+n,e),this.imuln(i),this.words[0]+c<67108864?this.words[0]+=c:this._iaddn(c);if(0!==o){var f=1;for(c=l(t,u,t.length,e),u=0;u<o;u++)f*=e;this.imuln(f),this.words[0]+c<67108864?this.words[0]+=c:this._iaddn(c)}},a.prototype.copy=function(t){t.words=new Array(this.length);for(var e=0;e<this.length;e++)t.words[e]=this.words[e];t.length=this.length,t.negative=this.negative,t.red=this.red},a.prototype.clone=function(){var t=new a(null);return this.copy(t),t},a.prototype._expand=function(t){for(;this.length<t;)this.words[this.length++]=0;return this},a.prototype.strip=function(){for(;this.length>1&&0===this.words[this.length-1];)this.length--;return this._normSign()},a.prototype._normSign=function(){return 1===this.length&&0===this.words[0]&&(this.negative=0),this},a.prototype.inspect=function(){return(this.red?\\\"<BN-R: \\\":\\\"<BN: \\\")+this.toString(16)+\\\">\\\"};var c=[\\\"\\\",\\\"0\\\",\\\"00\\\",\\\"000\\\",\\\"0000\\\",\\\"00000\\\",\\\"000000\\\",\\\"0000000\\\",\\\"00000000\\\",\\\"000000000\\\",\\\"0000000000\\\",\\\"00000000000\\\",\\\"000000000000\\\",\\\"0000000000000\\\",\\\"00000000000000\\\",\\\"000000000000000\\\",\\\"0000000000000000\\\",\\\"00000000000000000\\\",\\\"000000000000000000\\\",\\\"0000000000000000000\\\",\\\"00000000000000000000\\\",\\\"000000000000000000000\\\",\\\"0000000000000000000000\\\",\\\"00000000000000000000000\\\",\\\"000000000000000000000000\\\",\\\"0000000000000000000000000\\\"],u=[0,0,25,16,12,11,10,9,8,8,7,7,7,7,6,6,6,6,6,6,6,5,5,5,5,5,5,5,5,5,5,5,5,5,5,5,5],f=[0,0,33554432,43046721,16777216,48828125,60466176,40353607,16777216,43046721,1e7,19487171,35831808,62748517,7529536,11390625,16777216,24137569,34012224,47045881,64e6,4084101,5153632,6436343,7962624,9765625,11881376,14348907,17210368,20511149,243e5,28629151,33554432,39135393,45435424,52521875,60466176];function h(t,e,r){r.negative=e.negative^t.negative;var n=t.length+e.length|0;r.length=n,n=n-1|0;var i=0|t.words[0],a=0|e.words[0],o=i*a,s=67108863&o,l=o/67108864|0;r.words[0]=s;for(var c=1;c<n;c++){for(var u=l>>>26,f=67108863&l,h=Math.min(c,e.length-1),p=Math.max(0,c-t.length+1);p<=h;p++){var d=c-p|0;u+=(o=(i=0|t.words[d])*(a=0|e.words[p])+f)/67108864|0,f=67108863&o}r.words[c]=0|f,l=0|u}return 0!==l?r.words[c]=0|l:r.length--,r.strip()}a.prototype.toString=function(t,e){var r;if(e=0|e||1,16===(t=t||10)||\\\"hex\\\"===t){r=\\\"\\\";for(var i=0,a=0,o=0;o<this.length;o++){var s=this.words[o],l=(16777215&(s<<i|a)).toString(16);r=0!==(a=s>>>24-i&16777215)||o!==this.length-1?c[6-l.length]+l+r:l+r,(i+=2)>=26&&(i-=26,o--)}for(0!==a&&(r=a.toString(16)+r);r.length%e!=0;)r=\\\"0\\\"+r;return 0!==this.negative&&(r=\\\"-\\\"+r),r}if(t===(0|t)&&t>=2&&t<=36){var h=u[t],p=f[t];r=\\\"\\\";var d=this.clone();for(d.negative=0;!d.isZero();){var g=d.modn(p).toString(t);r=(d=d.idivn(p)).isZero()?g+r:c[h-g.length]+g+r}for(this.isZero()&&(r=\\\"0\\\"+r);r.length%e!=0;)r=\\\"0\\\"+r;return 0!==this.negative&&(r=\\\"-\\\"+r),r}n(!1,\\\"Base should be between 2 and 36\\\")},a.prototype.toNumber=function(){var t=this.words[0];return 2===this.length?t+=67108864*this.words[1]:3===this.length&&1===this.words[2]?t+=4503599627370496+67108864*this.words[1]:this.length>2&&n(!1,\\\"Number can only safely store up to 53 bits\\\"),0!==this.negative?-t:t},a.prototype.toJSON=function(){return this.toString(16)},a.prototype.toBuffer=function(t,e){return n(\\\"undefined\\\"!=typeof o),this.toArrayLike(o,t,e)},a.prototype.toArray=function(t,e){return this.toArrayLike(Array,t,e)},a.prototype.toArrayLike=function(t,e,r){var i=this.byteLength(),a=r||Math.max(1,i);n(i<=a,\\\"byte array longer than desired length\\\"),n(a>0,\\\"Requested array length <= 0\\\"),this.strip();var o,s,l=\\\"le\\\"===e,c=new t(a),u=this.clone();if(l){for(s=0;!u.isZero();s++)o=u.andln(255),u.iushrn(8),c[s]=o;for(;s<a;s++)c[s]=0}else{for(s=0;s<a-i;s++)c[s]=0;for(s=0;!u.isZero();s++)o=u.andln(255),u.iushrn(8),c[a-s-1]=o}return c},Math.clz32?a.prototype._countBits=function(t){return 32-Math.clz32(t)}:a.prototype._countBits=function(t){var e=t,r=0;return e>=4096&&(r+=13,e>>>=13),e>=64&&(r+=7,e>>>=7),e>=8&&(r+=4,e>>>=4),e>=2&&(r+=2,e>>>=2),r+e},a.prototype._zeroBits=function(t){if(0===t)return 26;var e=t,r=0;return 0==(8191&e)&&(r+=13,e>>>=13),0==(127&e)&&(r+=7,e>>>=7),0==(15&e)&&(r+=4,e>>>=4),0==(3&e)&&(r+=2,e>>>=2),0==(1&e)&&r++,r},a.prototype.bitLength=function(){var t=this.words[this.length-1],e=this._countBits(t);return 26*(this.length-1)+e},a.prototype.zeroBits=function(){if(this.isZero())return 0;for(var t=0,e=0;e<this.length;e++){var r=this._zeroBits(this.words[e]);if(t+=r,26!==r)break}return t},a.prototype.byteLength=function(){return Math.ceil(this.bitLength()/8)},a.prototype.toTwos=function(t){return 0!==this.negative?this.abs().inotn(t).iaddn(1):this.clone()},a.prototype.fromTwos=function(t){return this.testn(t-1)?this.notn(t).iaddn(1).ineg():this.clone()},a.prototype.isNeg=function(){return 0!==this.negative},a.prototype.neg=function(){return this.clone().ineg()},a.prototype.ineg=function(){return this.isZero()||(this.negative^=1),this},a.prototype.iuor=function(t){for(;this.length<t.length;)this.words[this.length++]=0;for(var e=0;e<t.length;e++)this.words[e]=this.words[e]|t.words[e];return this.strip()},a.prototype.ior=function(t){return n(0==(this.negative|t.negative)),this.iuor(t)},a.prototype.or=function(t){return this.length>t.length?this.clone().ior(t):t.clone().ior(this)},a.prototype.uor=function(t){return this.length>t.length?this.clone().iuor(t):t.clone().iuor(this)},a.prototype.iuand=function(t){var e;e=this.length>t.length?t:this;for(var r=0;r<e.length;r++)this.words[r]=this.words[r]&t.words[r];return this.length=e.length,this.strip()},a.prototype.iand=function(t){return n(0==(this.negative|t.negative)),this.iuand(t)},a.prototype.and=function(t){return this.length>t.length?this.clone().iand(t):t.clone().iand(this)},a.prototype.uand=function(t){return this.length>t.length?this.clone().iuand(t):t.clone().iuand(this)},a.prototype.iuxor=function(t){var e,r;this.length>t.length?(e=this,r=t):(e=t,r=this);for(var n=0;n<r.length;n++)this.words[n]=e.words[n]^r.words[n];if(this!==e)for(;n<e.length;n++)this.words[n]=e.words[n];return this.length=e.length,this.strip()},a.prototype.ixor=function(t){return n(0==(this.negative|t.negative)),this.iuxor(t)},a.prototype.xor=function(t){return this.length>t.length?this.clone().ixor(t):t.clone().ixor(this)},a.prototype.uxor=function(t){return this.length>t.length?this.clone().iuxor(t):t.clone().iuxor(this)},a.prototype.inotn=function(t){n(\\\"number\\\"==typeof t&&t>=0);var e=0|Math.ceil(t/26),r=t%26;this._expand(e),r>0&&e--;for(var i=0;i<e;i++)this.words[i]=67108863&~this.words[i];return r>0&&(this.words[i]=~this.words[i]&67108863>>26-r),this.strip()},a.prototype.notn=function(t){return this.clone().inotn(t)},a.prototype.setn=function(t,e){n(\\\"number\\\"==typeof t&&t>=0);var r=t/26|0,i=t%26;return this._expand(r+1),this.words[r]=e?this.words[r]|1<<i:this.words[r]&~(1<<i),this.strip()},a.prototype.iadd=function(t){var e,r,n;if(0!==this.negative&&0===t.negative)return this.negative=0,e=this.isub(t),this.negative^=1,this._normSign();if(0===this.negative&&0!==t.negative)return t.negative=0,e=this.isub(t),t.negative=1,e._normSign();this.length>t.length?(r=this,n=t):(r=t,n=this);for(var i=0,a=0;a<n.length;a++)e=(0|r.words[a])+(0|n.words[a])+i,this.words[a]=67108863&e,i=e>>>26;for(;0!==i&&a<r.length;a++)e=(0|r.words[a])+i,this.words[a]=67108863&e,i=e>>>26;if(this.length=r.length,0!==i)this.words[this.length]=i,this.length++;else if(r!==this)for(;a<r.length;a++)this.words[a]=r.words[a];return this},a.prototype.add=function(t){var e;return 0!==t.negative&&0===this.negative?(t.negative=0,e=this.sub(t),t.negative^=1,e):0===t.negative&&0!==this.negative?(this.negative=0,e=t.sub(this),this.negative=1,e):this.length>t.length?this.clone().iadd(t):t.clone().iadd(this)},a.prototype.isub=function(t){if(0!==t.negative){t.negative=0;var e=this.iadd(t);return t.negative=1,e._normSign()}if(0!==this.negative)return this.negative=0,this.iadd(t),this.negative=1,this._normSign();var r,n,i=this.cmp(t);if(0===i)return this.negative=0,this.length=1,this.words[0]=0,this;i>0?(r=this,n=t):(r=t,n=this);for(var a=0,o=0;o<n.length;o++)a=(e=(0|r.words[o])-(0|n.words[o])+a)>>26,this.words[o]=67108863&e;for(;0!==a&&o<r.length;o++)a=(e=(0|r.words[o])+a)>>26,this.words[o]=67108863&e;if(0===a&&o<r.length&&r!==this)for(;o<r.length;o++)this.words[o]=r.words[o];return this.length=Math.max(this.length,o),r!==this&&(this.negative=1),this.strip()},a.prototype.sub=function(t){return this.clone().isub(t)};var p=function(t,e,r){var n,i,a,o=t.words,s=e.words,l=r.words,c=0,u=0|o[0],f=8191&u,h=u>>>13,p=0|o[1],d=8191&p,g=p>>>13,v=0|o[2],m=8191&v,y=v>>>13,x=0|o[3],b=8191&x,_=x>>>13,w=0|o[4],k=8191&w,T=w>>>13,A=0|o[5],M=8191&A,S=A>>>13,E=0|o[6],C=8191&E,L=E>>>13,z=0|o[7],O=8191&z,I=z>>>13,D=0|o[8],P=8191&D,R=D>>>13,F=0|o[9],B=8191&F,N=F>>>13,j=0|s[0],V=8191&j,U=j>>>13,H=0|s[1],q=8191&H,G=H>>>13,Y=0|s[2],W=8191&Y,X=Y>>>13,Z=0|s[3],$=8191&Z,J=Z>>>13,K=0|s[4],Q=8191&K,tt=K>>>13,et=0|s[5],rt=8191&et,nt=et>>>13,it=0|s[6],at=8191&it,ot=it>>>13,st=0|s[7],lt=8191&st,ct=st>>>13,ut=0|s[8],ft=8191&ut,ht=ut>>>13,pt=0|s[9],dt=8191&pt,gt=pt>>>13;r.negative=t.negative^e.negative,r.length=19;var vt=(c+(n=Math.imul(f,V))|0)+((8191&(i=(i=Math.imul(f,U))+Math.imul(h,V)|0))<<13)|0;c=((a=Math.imul(h,U))+(i>>>13)|0)+(vt>>>26)|0,vt&=67108863,n=Math.imul(d,V),i=(i=Math.imul(d,U))+Math.imul(g,V)|0,a=Math.imul(g,U);var mt=(c+(n=n+Math.imul(f,q)|0)|0)+((8191&(i=(i=i+Math.imul(f,G)|0)+Math.imul(h,q)|0))<<13)|0;c=((a=a+Math.imul(h,G)|0)+(i>>>13)|0)+(mt>>>26)|0,mt&=67108863,n=Math.imul(m,V),i=(i=Math.imul(m,U))+Math.imul(y,V)|0,a=Math.imul(y,U),n=n+Math.imul(d,q)|0,i=(i=i+Math.imul(d,G)|0)+Math.imul(g,q)|0,a=a+Math.imul(g,G)|0;var yt=(c+(n=n+Math.imul(f,W)|0)|0)+((8191&(i=(i=i+Math.imul(f,X)|0)+Math.imul(h,W)|0))<<13)|0;c=((a=a+Math.imul(h,X)|0)+(i>>>13)|0)+(yt>>>26)|0,yt&=67108863,n=Math.imul(b,V),i=(i=Math.imul(b,U))+Math.imul(_,V)|0,a=Math.imul(_,U),n=n+Math.imul(m,q)|0,i=(i=i+Math.imul(m,G)|0)+Math.imul(y,q)|0,a=a+Math.imul(y,G)|0,n=n+Math.imul(d,W)|0,i=(i=i+Math.imul(d,X)|0)+Math.imul(g,W)|0,a=a+Math.imul(g,X)|0;var xt=(c+(n=n+Math.imul(f,$)|0)|0)+((8191&(i=(i=i+Math.imul(f,J)|0)+Math.imul(h,$)|0))<<13)|0;c=((a=a+Math.imul(h,J)|0)+(i>>>13)|0)+(xt>>>26)|0,xt&=67108863,n=Math.imul(k,V),i=(i=Math.imul(k,U))+Math.imul(T,V)|0,a=Math.imul(T,U),n=n+Math.imul(b,q)|0,i=(i=i+Math.imul(b,G)|0)+Math.imul(_,q)|0,a=a+Math.imul(_,G)|0,n=n+Math.imul(m,W)|0,i=(i=i+Math.imul(m,X)|0)+Math.imul(y,W)|0,a=a+Math.imul(y,X)|0,n=n+Math.imul(d,$)|0,i=(i=i+Math.imul(d,J)|0)+Math.imul(g,$)|0,a=a+Math.imul(g,J)|0;var bt=(c+(n=n+Math.imul(f,Q)|0)|0)+((8191&(i=(i=i+Math.imul(f,tt)|0)+Math.imul(h,Q)|0))<<13)|0;c=((a=a+Math.imul(h,tt)|0)+(i>>>13)|0)+(bt>>>26)|0,bt&=67108863,n=Math.imul(M,V),i=(i=Math.imul(M,U))+Math.imul(S,V)|0,a=Math.imul(S,U),n=n+Math.imul(k,q)|0,i=(i=i+Math.imul(k,G)|0)+Math.imul(T,q)|0,a=a+Math.imul(T,G)|0,n=n+Math.imul(b,W)|0,i=(i=i+Math.imul(b,X)|0)+Math.imul(_,W)|0,a=a+Math.imul(_,X)|0,n=n+Math.imul(m,$)|0,i=(i=i+Math.imul(m,J)|0)+Math.imul(y,$)|0,a=a+Math.imul(y,J)|0,n=n+Math.imul(d,Q)|0,i=(i=i+Math.imul(d,tt)|0)+Math.imul(g,Q)|0,a=a+Math.imul(g,tt)|0;var _t=(c+(n=n+Math.imul(f,rt)|0)|0)+((8191&(i=(i=i+Math.imul(f,nt)|0)+Math.imul(h,rt)|0))<<13)|0;c=((a=a+Math.imul(h,nt)|0)+(i>>>13)|0)+(_t>>>26)|0,_t&=67108863,n=Math.imul(C,V),i=(i=Math.imul(C,U))+Math.imul(L,V)|0,a=Math.imul(L,U),n=n+Math.imul(M,q)|0,i=(i=i+Math.imul(M,G)|0)+Math.imul(S,q)|0,a=a+Math.imul(S,G)|0,n=n+Math.imul(k,W)|0,i=(i=i+Math.imul(k,X)|0)+Math.imul(T,W)|0,a=a+Math.imul(T,X)|0,n=n+Math.imul(b,$)|0,i=(i=i+Math.imul(b,J)|0)+Math.imul(_,$)|0,a=a+Math.imul(_,J)|0,n=n+Math.imul(m,Q)|0,i=(i=i+Math.imul(m,tt)|0)+Math.imul(y,Q)|0,a=a+Math.imul(y,tt)|0,n=n+Math.imul(d,rt)|0,i=(i=i+Math.imul(d,nt)|0)+Math.imul(g,rt)|0,a=a+Math.imul(g,nt)|0;var wt=(c+(n=n+Math.imul(f,at)|0)|0)+((8191&(i=(i=i+Math.imul(f,ot)|0)+Math.imul(h,at)|0))<<13)|0;c=((a=a+Math.imul(h,ot)|0)+(i>>>13)|0)+(wt>>>26)|0,wt&=67108863,n=Math.imul(O,V),i=(i=Math.imul(O,U))+Math.imul(I,V)|0,a=Math.imul(I,U),n=n+Math.imul(C,q)|0,i=(i=i+Math.imul(C,G)|0)+Math.imul(L,q)|0,a=a+Math.imul(L,G)|0,n=n+Math.imul(M,W)|0,i=(i=i+Math.imul(M,X)|0)+Math.imul(S,W)|0,a=a+Math.imul(S,X)|0,n=n+Math.imul(k,$)|0,i=(i=i+Math.imul(k,J)|0)+Math.imul(T,$)|0,a=a+Math.imul(T,J)|0,n=n+Math.imul(b,Q)|0,i=(i=i+Math.imul(b,tt)|0)+Math.imul(_,Q)|0,a=a+Math.imul(_,tt)|0,n=n+Math.imul(m,rt)|0,i=(i=i+Math.imul(m,nt)|0)+Math.imul(y,rt)|0,a=a+Math.imul(y,nt)|0,n=n+Math.imul(d,at)|0,i=(i=i+Math.imul(d,ot)|0)+Math.imul(g,at)|0,a=a+Math.imul(g,ot)|0;var kt=(c+(n=n+Math.imul(f,lt)|0)|0)+((8191&(i=(i=i+Math.imul(f,ct)|0)+Math.imul(h,lt)|0))<<13)|0;c=((a=a+Math.imul(h,ct)|0)+(i>>>13)|0)+(kt>>>26)|0,kt&=67108863,n=Math.imul(P,V),i=(i=Math.imul(P,U))+Math.imul(R,V)|0,a=Math.imul(R,U),n=n+Math.imul(O,q)|0,i=(i=i+Math.imul(O,G)|0)+Math.imul(I,q)|0,a=a+Math.imul(I,G)|0,n=n+Math.imul(C,W)|0,i=(i=i+Math.imul(C,X)|0)+Math.imul(L,W)|0,a=a+Math.imul(L,X)|0,n=n+Math.imul(M,$)|0,i=(i=i+Math.imul(M,J)|0)+Math.imul(S,$)|0,a=a+Math.imul(S,J)|0,n=n+Math.imul(k,Q)|0,i=(i=i+Math.imul(k,tt)|0)+Math.imul(T,Q)|0,a=a+Math.imul(T,tt)|0,n=n+Math.imul(b,rt)|0,i=(i=i+Math.imul(b,nt)|0)+Math.imul(_,rt)|0,a=a+Math.imul(_,nt)|0,n=n+Math.imul(m,at)|0,i=(i=i+Math.imul(m,ot)|0)+Math.imul(y,at)|0,a=a+Math.imul(y,ot)|0,n=n+Math.imul(d,lt)|0,i=(i=i+Math.imul(d,ct)|0)+Math.imul(g,lt)|0,a=a+Math.imul(g,ct)|0;var Tt=(c+(n=n+Math.imul(f,ft)|0)|0)+((8191&(i=(i=i+Math.imul(f,ht)|0)+Math.imul(h,ft)|0))<<13)|0;c=((a=a+Math.imul(h,ht)|0)+(i>>>13)|0)+(Tt>>>26)|0,Tt&=67108863,n=Math.imul(B,V),i=(i=Math.imul(B,U))+Math.imul(N,V)|0,a=Math.imul(N,U),n=n+Math.imul(P,q)|0,i=(i=i+Math.imul(P,G)|0)+Math.imul(R,q)|0,a=a+Math.imul(R,G)|0,n=n+Math.imul(O,W)|0,i=(i=i+Math.imul(O,X)|0)+Math.imul(I,W)|0,a=a+Math.imul(I,X)|0,n=n+Math.imul(C,$)|0,i=(i=i+Math.imul(C,J)|0)+Math.imul(L,$)|0,a=a+Math.imul(L,J)|0,n=n+Math.imul(M,Q)|0,i=(i=i+Math.imul(M,tt)|0)+Math.imul(S,Q)|0,a=a+Math.imul(S,tt)|0,n=n+Math.imul(k,rt)|0,i=(i=i+Math.imul(k,nt)|0)+Math.imul(T,rt)|0,a=a+Math.imul(T,nt)|0,n=n+Math.imul(b,at)|0,i=(i=i+Math.imul(b,ot)|0)+Math.imul(_,at)|0,a=a+Math.imul(_,ot)|0,n=n+Math.imul(m,lt)|0,i=(i=i+Math.imul(m,ct)|0)+Math.imul(y,lt)|0,a=a+Math.imul(y,ct)|0,n=n+Math.imul(d,ft)|0,i=(i=i+Math.imul(d,ht)|0)+Math.imul(g,ft)|0,a=a+Math.imul(g,ht)|0;var At=(c+(n=n+Math.imul(f,dt)|0)|0)+((8191&(i=(i=i+Math.imul(f,gt)|0)+Math.imul(h,dt)|0))<<13)|0;c=((a=a+Math.imul(h,gt)|0)+(i>>>13)|0)+(At>>>26)|0,At&=67108863,n=Math.imul(B,q),i=(i=Math.imul(B,G))+Math.imul(N,q)|0,a=Math.imul(N,G),n=n+Math.imul(P,W)|0,i=(i=i+Math.imul(P,X)|0)+Math.imul(R,W)|0,a=a+Math.imul(R,X)|0,n=n+Math.imul(O,$)|0,i=(i=i+Math.imul(O,J)|0)+Math.imul(I,$)|0,a=a+Math.imul(I,J)|0,n=n+Math.imul(C,Q)|0,i=(i=i+Math.imul(C,tt)|0)+Math.imul(L,Q)|0,a=a+Math.imul(L,tt)|0,n=n+Math.imul(M,rt)|0,i=(i=i+Math.imul(M,nt)|0)+Math.imul(S,rt)|0,a=a+Math.imul(S,nt)|0,n=n+Math.imul(k,at)|0,i=(i=i+Math.imul(k,ot)|0)+Math.imul(T,at)|0,a=a+Math.imul(T,ot)|0,n=n+Math.imul(b,lt)|0,i=(i=i+Math.imul(b,ct)|0)+Math.imul(_,lt)|0,a=a+Math.imul(_,ct)|0,n=n+Math.imul(m,ft)|0,i=(i=i+Math.imul(m,ht)|0)+Math.imul(y,ft)|0,a=a+Math.imul(y,ht)|0;var Mt=(c+(n=n+Math.imul(d,dt)|0)|0)+((8191&(i=(i=i+Math.imul(d,gt)|0)+Math.imul(g,dt)|0))<<13)|0;c=((a=a+Math.imul(g,gt)|0)+(i>>>13)|0)+(Mt>>>26)|0,Mt&=67108863,n=Math.imul(B,W),i=(i=Math.imul(B,X))+Math.imul(N,W)|0,a=Math.imul(N,X),n=n+Math.imul(P,$)|0,i=(i=i+Math.imul(P,J)|0)+Math.imul(R,$)|0,a=a+Math.imul(R,J)|0,n=n+Math.imul(O,Q)|0,i=(i=i+Math.imul(O,tt)|0)+Math.imul(I,Q)|0,a=a+Math.imul(I,tt)|0,n=n+Math.imul(C,rt)|0,i=(i=i+Math.imul(C,nt)|0)+Math.imul(L,rt)|0,a=a+Math.imul(L,nt)|0,n=n+Math.imul(M,at)|0,i=(i=i+Math.imul(M,ot)|0)+Math.imul(S,at)|0,a=a+Math.imul(S,ot)|0,n=n+Math.imul(k,lt)|0,i=(i=i+Math.imul(k,ct)|0)+Math.imul(T,lt)|0,a=a+Math.imul(T,ct)|0,n=n+Math.imul(b,ft)|0,i=(i=i+Math.imul(b,ht)|0)+Math.imul(_,ft)|0,a=a+Math.imul(_,ht)|0;var St=(c+(n=n+Math.imul(m,dt)|0)|0)+((8191&(i=(i=i+Math.imul(m,gt)|0)+Math.imul(y,dt)|0))<<13)|0;c=((a=a+Math.imul(y,gt)|0)+(i>>>13)|0)+(St>>>26)|0,St&=67108863,n=Math.imul(B,$),i=(i=Math.imul(B,J))+Math.imul(N,$)|0,a=Math.imul(N,J),n=n+Math.imul(P,Q)|0,i=(i=i+Math.imul(P,tt)|0)+Math.imul(R,Q)|0,a=a+Math.imul(R,tt)|0,n=n+Math.imul(O,rt)|0,i=(i=i+Math.imul(O,nt)|0)+Math.imul(I,rt)|0,a=a+Math.imul(I,nt)|0,n=n+Math.imul(C,at)|0,i=(i=i+Math.imul(C,ot)|0)+Math.imul(L,at)|0,a=a+Math.imul(L,ot)|0,n=n+Math.imul(M,lt)|0,i=(i=i+Math.imul(M,ct)|0)+Math.imul(S,lt)|0,a=a+Math.imul(S,ct)|0,n=n+Math.imul(k,ft)|0,i=(i=i+Math.imul(k,ht)|0)+Math.imul(T,ft)|0,a=a+Math.imul(T,ht)|0;var Et=(c+(n=n+Math.imul(b,dt)|0)|0)+((8191&(i=(i=i+Math.imul(b,gt)|0)+Math.imul(_,dt)|0))<<13)|0;c=((a=a+Math.imul(_,gt)|0)+(i>>>13)|0)+(Et>>>26)|0,Et&=67108863,n=Math.imul(B,Q),i=(i=Math.imul(B,tt))+Math.imul(N,Q)|0,a=Math.imul(N,tt),n=n+Math.imul(P,rt)|0,i=(i=i+Math.imul(P,nt)|0)+Math.imul(R,rt)|0,a=a+Math.imul(R,nt)|0,n=n+Math.imul(O,at)|0,i=(i=i+Math.imul(O,ot)|0)+Math.imul(I,at)|0,a=a+Math.imul(I,ot)|0,n=n+Math.imul(C,lt)|0,i=(i=i+Math.imul(C,ct)|0)+Math.imul(L,lt)|0,a=a+Math.imul(L,ct)|0,n=n+Math.imul(M,ft)|0,i=(i=i+Math.imul(M,ht)|0)+Math.imul(S,ft)|0,a=a+Math.imul(S,ht)|0;var Ct=(c+(n=n+Math.imul(k,dt)|0)|0)+((8191&(i=(i=i+Math.imul(k,gt)|0)+Math.imul(T,dt)|0))<<13)|0;c=((a=a+Math.imul(T,gt)|0)+(i>>>13)|0)+(Ct>>>26)|0,Ct&=67108863,n=Math.imul(B,rt),i=(i=Math.imul(B,nt))+Math.imul(N,rt)|0,a=Math.imul(N,nt),n=n+Math.imul(P,at)|0,i=(i=i+Math.imul(P,ot)|0)+Math.imul(R,at)|0,a=a+Math.imul(R,ot)|0,n=n+Math.imul(O,lt)|0,i=(i=i+Math.imul(O,ct)|0)+Math.imul(I,lt)|0,a=a+Math.imul(I,ct)|0,n=n+Math.imul(C,ft)|0,i=(i=i+Math.imul(C,ht)|0)+Math.imul(L,ft)|0,a=a+Math.imul(L,ht)|0;var Lt=(c+(n=n+Math.imul(M,dt)|0)|0)+((8191&(i=(i=i+Math.imul(M,gt)|0)+Math.imul(S,dt)|0))<<13)|0;c=((a=a+Math.imul(S,gt)|0)+(i>>>13)|0)+(Lt>>>26)|0,Lt&=67108863,n=Math.imul(B,at),i=(i=Math.imul(B,ot))+Math.imul(N,at)|0,a=Math.imul(N,ot),n=n+Math.imul(P,lt)|0,i=(i=i+Math.imul(P,ct)|0)+Math.imul(R,lt)|0,a=a+Math.imul(R,ct)|0,n=n+Math.imul(O,ft)|0,i=(i=i+Math.imul(O,ht)|0)+Math.imul(I,ft)|0,a=a+Math.imul(I,ht)|0;var zt=(c+(n=n+Math.imul(C,dt)|0)|0)+((8191&(i=(i=i+Math.imul(C,gt)|0)+Math.imul(L,dt)|0))<<13)|0;c=((a=a+Math.imul(L,gt)|0)+(i>>>13)|0)+(zt>>>26)|0,zt&=67108863,n=Math.imul(B,lt),i=(i=Math.imul(B,ct))+Math.imul(N,lt)|0,a=Math.imul(N,ct),n=n+Math.imul(P,ft)|0,i=(i=i+Math.imul(P,ht)|0)+Math.imul(R,ft)|0,a=a+Math.imul(R,ht)|0;var Ot=(c+(n=n+Math.imul(O,dt)|0)|0)+((8191&(i=(i=i+Math.imul(O,gt)|0)+Math.imul(I,dt)|0))<<13)|0;c=((a=a+Math.imul(I,gt)|0)+(i>>>13)|0)+(Ot>>>26)|0,Ot&=67108863,n=Math.imul(B,ft),i=(i=Math.imul(B,ht))+Math.imul(N,ft)|0,a=Math.imul(N,ht);var It=(c+(n=n+Math.imul(P,dt)|0)|0)+((8191&(i=(i=i+Math.imul(P,gt)|0)+Math.imul(R,dt)|0))<<13)|0;c=((a=a+Math.imul(R,gt)|0)+(i>>>13)|0)+(It>>>26)|0,It&=67108863;var Dt=(c+(n=Math.imul(B,dt))|0)+((8191&(i=(i=Math.imul(B,gt))+Math.imul(N,dt)|0))<<13)|0;return c=((a=Math.imul(N,gt))+(i>>>13)|0)+(Dt>>>26)|0,Dt&=67108863,l[0]=vt,l[1]=mt,l[2]=yt,l[3]=xt,l[4]=bt,l[5]=_t,l[6]=wt,l[7]=kt,l[8]=Tt,l[9]=At,l[10]=Mt,l[11]=St,l[12]=Et,l[13]=Ct,l[14]=Lt,l[15]=zt,l[16]=Ot,l[17]=It,l[18]=Dt,0!==c&&(l[19]=c,r.length++),r};function d(t,e,r){return(new g).mulp(t,e,r)}function g(t,e){this.x=t,this.y=e}Math.imul||(p=h),a.prototype.mulTo=function(t,e){var r=this.length+t.length;return 10===this.length&&10===t.length?p(this,t,e):r<63?h(this,t,e):r<1024?function(t,e,r){r.negative=e.negative^t.negative,r.length=t.length+e.length;for(var n=0,i=0,a=0;a<r.length-1;a++){var o=i;i=0;for(var s=67108863&n,l=Math.min(a,e.length-1),c=Math.max(0,a-t.length+1);c<=l;c++){var u=a-c,f=(0|t.words[u])*(0|e.words[c]),h=67108863&f;s=67108863&(h=h+s|0),i+=(o=(o=o+(f/67108864|0)|0)+(h>>>26)|0)>>>26,o&=67108863}r.words[a]=s,n=o,o=i}return 0!==n?r.words[a]=n:r.length--,r.strip()}(this,t,e):d(this,t,e)},g.prototype.makeRBT=function(t){for(var e=new Array(t),r=a.prototype._countBits(t)-1,n=0;n<t;n++)e[n]=this.revBin(n,r,t);return e},g.prototype.revBin=function(t,e,r){if(0===t||t===r-1)return t;for(var n=0,i=0;i<e;i++)n|=(1&t)<<e-i-1,t>>=1;return n},g.prototype.permute=function(t,e,r,n,i,a){for(var o=0;o<a;o++)n[o]=e[t[o]],i[o]=r[t[o]]},g.prototype.transform=function(t,e,r,n,i,a){this.permute(a,t,e,r,n,i);for(var o=1;o<i;o<<=1)for(var s=o<<1,l=Math.cos(2*Math.PI/s),c=Math.sin(2*Math.PI/s),u=0;u<i;u+=s)for(var f=l,h=c,p=0;p<o;p++){var d=r[u+p],g=n[u+p],v=r[u+p+o],m=n[u+p+o],y=f*v-h*m;m=f*m+h*v,v=y,r[u+p]=d+v,n[u+p]=g+m,r[u+p+o]=d-v,n[u+p+o]=g-m,p!==s&&(y=l*f-c*h,h=l*h+c*f,f=y)}},g.prototype.guessLen13b=function(t,e){var r=1|Math.max(e,t),n=1&r,i=0;for(r=r/2|0;r;r>>>=1)i++;return 1<<i+1+n},g.prototype.conjugate=function(t,e,r){if(!(r<=1))for(var n=0;n<r/2;n++){var i=t[n];t[n]=t[r-n-1],t[r-n-1]=i,i=e[n],e[n]=-e[r-n-1],e[r-n-1]=-i}},g.prototype.normalize13b=function(t,e){for(var r=0,n=0;n<e/2;n++){var i=8192*Math.round(t[2*n+1]/e)+Math.round(t[2*n]/e)+r;t[n]=67108863&i,r=i<67108864?0:i/67108864|0}return t},g.prototype.convert13b=function(t,e,r,i){for(var a=0,o=0;o<e;o++)a+=0|t[o],r[2*o]=8191&a,a>>>=13,r[2*o+1]=8191&a,a>>>=13;for(o=2*e;o<i;++o)r[o]=0;n(0===a),n(0==(-8192&a))},g.prototype.stub=function(t){for(var e=new Array(t),r=0;r<t;r++)e[r]=0;return e},g.prototype.mulp=function(t,e,r){var n=2*this.guessLen13b(t.length,e.length),i=this.makeRBT(n),a=this.stub(n),o=new Array(n),s=new Array(n),l=new Array(n),c=new Array(n),u=new Array(n),f=new Array(n),h=r.words;h.length=n,this.convert13b(t.words,t.length,o,n),this.convert13b(e.words,e.length,c,n),this.transform(o,a,s,l,n,i),this.transform(c,a,u,f,n,i);for(var p=0;p<n;p++){var d=s[p]*u[p]-l[p]*f[p];l[p]=s[p]*f[p]+l[p]*u[p],s[p]=d}return this.conjugate(s,l,n),this.transform(s,l,h,a,n,i),this.conjugate(h,a,n),this.normalize13b(h,n),r.negative=t.negative^e.negative,r.length=t.length+e.length,r.strip()},a.prototype.mul=function(t){var e=new a(null);return e.words=new Array(this.length+t.length),this.mulTo(t,e)},a.prototype.mulf=function(t){var e=new a(null);return e.words=new Array(this.length+t.length),d(this,t,e)},a.prototype.imul=function(t){return this.clone().mulTo(t,this)},a.prototype.imuln=function(t){n(\\\"number\\\"==typeof t),n(t<67108864);for(var e=0,r=0;r<this.length;r++){var i=(0|this.words[r])*t,a=(67108863&i)+(67108863&e);e>>=26,e+=i/67108864|0,e+=a>>>26,this.words[r]=67108863&a}return 0!==e&&(this.words[r]=e,this.length++),this},a.prototype.muln=function(t){return this.clone().imuln(t)},a.prototype.sqr=function(){return this.mul(this)},a.prototype.isqr=function(){return this.imul(this.clone())},a.prototype.pow=function(t){var e=function(t){for(var e=new Array(t.bitLength()),r=0;r<e.length;r++){var n=r/26|0,i=r%26;e[r]=(t.words[n]&1<<i)>>>i}return e}(t);if(0===e.length)return new a(1);for(var r=this,n=0;n<e.length&&0===e[n];n++,r=r.sqr());if(++n<e.length)for(var i=r.sqr();n<e.length;n++,i=i.sqr())0!==e[n]&&(r=r.mul(i));return r},a.prototype.iushln=function(t){n(\\\"number\\\"==typeof t&&t>=0);var e,r=t%26,i=(t-r)/26,a=67108863>>>26-r<<26-r;if(0!==r){var o=0;for(e=0;e<this.length;e++){var s=this.words[e]&a,l=(0|this.words[e])-s<<r;this.words[e]=l|o,o=s>>>26-r}o&&(this.words[e]=o,this.length++)}if(0!==i){for(e=this.length-1;e>=0;e--)this.words[e+i]=this.words[e];for(e=0;e<i;e++)this.words[e]=0;this.length+=i}return this.strip()},a.prototype.ishln=function(t){return n(0===this.negative),this.iushln(t)},a.prototype.iushrn=function(t,e,r){var i;n(\\\"number\\\"==typeof t&&t>=0),i=e?(e-e%26)/26:0;var a=t%26,o=Math.min((t-a)/26,this.length),s=67108863^67108863>>>a<<a,l=r;if(i-=o,i=Math.max(0,i),l){for(var c=0;c<o;c++)l.words[c]=this.words[c];l.length=o}if(0===o);else if(this.length>o)for(this.length-=o,c=0;c<this.length;c++)this.words[c]=this.words[c+o];else this.words[0]=0,this.length=1;var u=0;for(c=this.length-1;c>=0&&(0!==u||c>=i);c--){var f=0|this.words[c];this.words[c]=u<<26-a|f>>>a,u=f&s}return l&&0!==u&&(l.words[l.length++]=u),0===this.length&&(this.words[0]=0,this.length=1),this.strip()},a.prototype.ishrn=function(t,e,r){return n(0===this.negative),this.iushrn(t,e,r)},a.prototype.shln=function(t){return this.clone().ishln(t)},a.prototype.ushln=function(t){return this.clone().iushln(t)},a.prototype.shrn=function(t){return this.clone().ishrn(t)},a.prototype.ushrn=function(t){return this.clone().iushrn(t)},a.prototype.testn=function(t){n(\\\"number\\\"==typeof t&&t>=0);var e=t%26,r=(t-e)/26,i=1<<e;return!(this.length<=r)&&!!(this.words[r]&i)},a.prototype.imaskn=function(t){n(\\\"number\\\"==typeof t&&t>=0);var e=t%26,r=(t-e)/26;if(n(0===this.negative,\\\"imaskn works only with positive numbers\\\"),this.length<=r)return this;if(0!==e&&r++,this.length=Math.min(r,this.length),0!==e){var i=67108863^67108863>>>e<<e;this.words[this.length-1]&=i}return this.strip()},a.prototype.maskn=function(t){return this.clone().imaskn(t)},a.prototype.iaddn=function(t){return n(\\\"number\\\"==typeof t),n(t<67108864),t<0?this.isubn(-t):0!==this.negative?1===this.length&&(0|this.words[0])<t?(this.words[0]=t-(0|this.words[0]),this.negative=0,this):(this.negative=0,this.isubn(t),this.negative=1,this):this._iaddn(t)},a.prototype._iaddn=function(t){this.words[0]+=t;for(var e=0;e<this.length&&this.words[e]>=67108864;e++)this.words[e]-=67108864,e===this.length-1?this.words[e+1]=1:this.words[e+1]++;return this.length=Math.max(this.length,e+1),this},a.prototype.isubn=function(t){if(n(\\\"number\\\"==typeof t),n(t<67108864),t<0)return this.iaddn(-t);if(0!==this.negative)return this.negative=0,this.iaddn(t),this.negative=1,this;if(this.words[0]-=t,1===this.length&&this.words[0]<0)this.words[0]=-this.words[0],this.negative=1;else for(var e=0;e<this.length&&this.words[e]<0;e++)this.words[e]+=67108864,this.words[e+1]-=1;return this.strip()},a.prototype.addn=function(t){return this.clone().iaddn(t)},a.prototype.subn=function(t){return this.clone().isubn(t)},a.prototype.iabs=function(){return this.negative=0,this},a.prototype.abs=function(){return this.clone().iabs()},a.prototype._ishlnsubmul=function(t,e,r){var i,a,o=t.length+r;this._expand(o);var s=0;for(i=0;i<t.length;i++){a=(0|this.words[i+r])+s;var l=(0|t.words[i])*e;s=((a-=67108863&l)>>26)-(l/67108864|0),this.words[i+r]=67108863&a}for(;i<this.length-r;i++)s=(a=(0|this.words[i+r])+s)>>26,this.words[i+r]=67108863&a;if(0===s)return this.strip();for(n(-1===s),s=0,i=0;i<this.length;i++)s=(a=-(0|this.words[i])+s)>>26,this.words[i]=67108863&a;return this.negative=1,this.strip()},a.prototype._wordDiv=function(t,e){var r=(this.length,t.length),n=this.clone(),i=t,o=0|i.words[i.length-1];0!==(r=26-this._countBits(o))&&(i=i.ushln(r),n.iushln(r),o=0|i.words[i.length-1]);var s,l=n.length-i.length;if(\\\"mod\\\"!==e){(s=new a(null)).length=l+1,s.words=new Array(s.length);for(var c=0;c<s.length;c++)s.words[c]=0}var u=n.clone()._ishlnsubmul(i,1,l);0===u.negative&&(n=u,s&&(s.words[l]=1));for(var f=l-1;f>=0;f--){var h=67108864*(0|n.words[i.length+f])+(0|n.words[i.length+f-1]);for(h=Math.min(h/o|0,67108863),n._ishlnsubmul(i,h,f);0!==n.negative;)h--,n.negative=0,n._ishlnsubmul(i,1,f),n.isZero()||(n.negative^=1);s&&(s.words[f]=h)}return s&&s.strip(),n.strip(),\\\"div\\\"!==e&&0!==r&&n.iushrn(r),{div:s||null,mod:n}},a.prototype.divmod=function(t,e,r){return n(!t.isZero()),this.isZero()?{div:new a(0),mod:new a(0)}:0!==this.negative&&0===t.negative?(s=this.neg().divmod(t,e),\\\"mod\\\"!==e&&(i=s.div.neg()),\\\"div\\\"!==e&&(o=s.mod.neg(),r&&0!==o.negative&&o.iadd(t)),{div:i,mod:o}):0===this.negative&&0!==t.negative?(s=this.divmod(t.neg(),e),\\\"mod\\\"!==e&&(i=s.div.neg()),{div:i,mod:s.mod}):0!=(this.negative&t.negative)?(s=this.neg().divmod(t.neg(),e),\\\"div\\\"!==e&&(o=s.mod.neg(),r&&0!==o.negative&&o.isub(t)),{div:s.div,mod:o}):t.length>this.length||this.cmp(t)<0?{div:new a(0),mod:this}:1===t.length?\\\"div\\\"===e?{div:this.divn(t.words[0]),mod:null}:\\\"mod\\\"===e?{div:null,mod:new a(this.modn(t.words[0]))}:{div:this.divn(t.words[0]),mod:new a(this.modn(t.words[0]))}:this._wordDiv(t,e);var i,o,s},a.prototype.div=function(t){return this.divmod(t,\\\"div\\\",!1).div},a.prototype.mod=function(t){return this.divmod(t,\\\"mod\\\",!1).mod},a.prototype.umod=function(t){return this.divmod(t,\\\"mod\\\",!0).mod},a.prototype.divRound=function(t){var e=this.divmod(t);if(e.mod.isZero())return e.div;var r=0!==e.div.negative?e.mod.isub(t):e.mod,n=t.ushrn(1),i=t.andln(1),a=r.cmp(n);return a<0||1===i&&0===a?e.div:0!==e.div.negative?e.div.isubn(1):e.div.iaddn(1)},a.prototype.modn=function(t){n(t<=67108863);for(var e=(1<<26)%t,r=0,i=this.length-1;i>=0;i--)r=(e*r+(0|this.words[i]))%t;return r},a.prototype.idivn=function(t){n(t<=67108863);for(var e=0,r=this.length-1;r>=0;r--){var i=(0|this.words[r])+67108864*e;this.words[r]=i/t|0,e=i%t}return this.strip()},a.prototype.divn=function(t){return this.clone().idivn(t)},a.prototype.egcd=function(t){n(0===t.negative),n(!t.isZero());var e=this,r=t.clone();e=0!==e.negative?e.umod(t):e.clone();for(var i=new a(1),o=new a(0),s=new a(0),l=new a(1),c=0;e.isEven()&&r.isEven();)e.iushrn(1),r.iushrn(1),++c;for(var u=r.clone(),f=e.clone();!e.isZero();){for(var h=0,p=1;0==(e.words[0]&p)&&h<26;++h,p<<=1);if(h>0)for(e.iushrn(h);h-- >0;)(i.isOdd()||o.isOdd())&&(i.iadd(u),o.isub(f)),i.iushrn(1),o.iushrn(1);for(var d=0,g=1;0==(r.words[0]&g)&&d<26;++d,g<<=1);if(d>0)for(r.iushrn(d);d-- >0;)(s.isOdd()||l.isOdd())&&(s.iadd(u),l.isub(f)),s.iushrn(1),l.iushrn(1);e.cmp(r)>=0?(e.isub(r),i.isub(s),o.isub(l)):(r.isub(e),s.isub(i),l.isub(o))}return{a:s,b:l,gcd:r.iushln(c)}},a.prototype._invmp=function(t){n(0===t.negative),n(!t.isZero());var e=this,r=t.clone();e=0!==e.negative?e.umod(t):e.clone();for(var i,o=new a(1),s=new a(0),l=r.clone();e.cmpn(1)>0&&r.cmpn(1)>0;){for(var c=0,u=1;0==(e.words[0]&u)&&c<26;++c,u<<=1);if(c>0)for(e.iushrn(c);c-- >0;)o.isOdd()&&o.iadd(l),o.iushrn(1);for(var f=0,h=1;0==(r.words[0]&h)&&f<26;++f,h<<=1);if(f>0)for(r.iushrn(f);f-- >0;)s.isOdd()&&s.iadd(l),s.iushrn(1);e.cmp(r)>=0?(e.isub(r),o.isub(s)):(r.isub(e),s.isub(o))}return(i=0===e.cmpn(1)?o:s).cmpn(0)<0&&i.iadd(t),i},a.prototype.gcd=function(t){if(this.isZero())return t.abs();if(t.isZero())return this.abs();var e=this.clone(),r=t.clone();e.negative=0,r.negative=0;for(var n=0;e.isEven()&&r.isEven();n++)e.iushrn(1),r.iushrn(1);for(;;){for(;e.isEven();)e.iushrn(1);for(;r.isEven();)r.iushrn(1);var i=e.cmp(r);if(i<0){var a=e;e=r,r=a}else if(0===i||0===r.cmpn(1))break;e.isub(r)}return r.iushln(n)},a.prototype.invm=function(t){return this.egcd(t).a.umod(t)},a.prototype.isEven=function(){return 0==(1&this.words[0])},a.prototype.isOdd=function(){return 1==(1&this.words[0])},a.prototype.andln=function(t){return this.words[0]&t},a.prototype.bincn=function(t){n(\\\"number\\\"==typeof t);var e=t%26,r=(t-e)/26,i=1<<e;if(this.length<=r)return this._expand(r+1),this.words[r]|=i,this;for(var a=i,o=r;0!==a&&o<this.length;o++){var s=0|this.words[o];a=(s+=a)>>>26,s&=67108863,this.words[o]=s}return 0!==a&&(this.words[o]=a,this.length++),this},a.prototype.isZero=function(){return 1===this.length&&0===this.words[0]},a.prototype.cmpn=function(t){var e,r=t<0;if(0!==this.negative&&!r)return-1;if(0===this.negative&&r)return 1;if(this.strip(),this.length>1)e=1;else{r&&(t=-t),n(t<=67108863,\\\"Number is too big\\\");var i=0|this.words[0];e=i===t?0:i<t?-1:1}return 0!==this.negative?0|-e:e},a.prototype.cmp=function(t){if(0!==this.negative&&0===t.negative)return-1;if(0===this.negative&&0!==t.negative)return 1;var e=this.ucmp(t);return 0!==this.negative?0|-e:e},a.prototype.ucmp=function(t){if(this.length>t.length)return 1;if(this.length<t.length)return-1;for(var e=0,r=this.length-1;r>=0;r--){var n=0|this.words[r],i=0|t.words[r];if(n!==i){n<i?e=-1:n>i&&(e=1);break}}return e},a.prototype.gtn=function(t){return 1===this.cmpn(t)},a.prototype.gt=function(t){return 1===this.cmp(t)},a.prototype.gten=function(t){return this.cmpn(t)>=0},a.prototype.gte=function(t){return this.cmp(t)>=0},a.prototype.ltn=function(t){return-1===this.cmpn(t)},a.prototype.lt=function(t){return-1===this.cmp(t)},a.prototype.lten=function(t){return this.cmpn(t)<=0},a.prototype.lte=function(t){return this.cmp(t)<=0},a.prototype.eqn=function(t){return 0===this.cmpn(t)},a.prototype.eq=function(t){return 0===this.cmp(t)},a.red=function(t){return new w(t)},a.prototype.toRed=function(t){return n(!this.red,\\\"Already a number in reduction context\\\"),n(0===this.negative,\\\"red works only with positives\\\"),t.convertTo(this)._forceRed(t)},a.prototype.fromRed=function(){return n(this.red,\\\"fromRed works only with numbers in reduction context\\\"),this.red.convertFrom(this)},a.prototype._forceRed=function(t){return this.red=t,this},a.prototype.forceRed=function(t){return n(!this.red,\\\"Already a number in reduction context\\\"),this._forceRed(t)},a.prototype.redAdd=function(t){return n(this.red,\\\"redAdd works only with red numbers\\\"),this.red.add(this,t)},a.prototype.redIAdd=function(t){return n(this.red,\\\"redIAdd works only with red numbers\\\"),this.red.iadd(this,t)},a.prototype.redSub=function(t){return n(this.red,\\\"redSub works only with red numbers\\\"),this.red.sub(this,t)},a.prototype.redISub=function(t){return n(this.red,\\\"redISub works only with red numbers\\\"),this.red.isub(this,t)},a.prototype.redShl=function(t){return n(this.red,\\\"redShl works only with red numbers\\\"),this.red.shl(this,t)},a.prototype.redMul=function(t){return n(this.red,\\\"redMul works only with red numbers\\\"),this.red._verify2(this,t),this.red.mul(this,t)},a.prototype.redIMul=function(t){return n(this.red,\\\"redMul works only with red numbers\\\"),this.red._verify2(this,t),this.red.imul(this,t)},a.prototype.redSqr=function(){return n(this.red,\\\"redSqr works only with red numbers\\\"),this.red._verify1(this),this.red.sqr(this)},a.prototype.redISqr=function(){return n(this.red,\\\"redISqr works only with red numbers\\\"),this.red._verify1(this),this.red.isqr(this)},a.prototype.redSqrt=function(){return n(this.red,\\\"redSqrt works only with red numbers\\\"),this.red._verify1(this),this.red.sqrt(this)},a.prototype.redInvm=function(){return n(this.red,\\\"redInvm works only with red numbers\\\"),this.red._verify1(this),this.red.invm(this)},a.prototype.redNeg=function(){return n(this.red,\\\"redNeg works only with red numbers\\\"),this.red._verify1(this),this.red.neg(this)},a.prototype.redPow=function(t){return n(this.red&&!t.red,\\\"redPow(normalNum)\\\"),this.red._verify1(this),this.red.pow(this,t)};var v={k256:null,p224:null,p192:null,p25519:null};function m(t,e){this.name=t,this.p=new a(e,16),this.n=this.p.bitLength(),this.k=new a(1).iushln(this.n).isub(this.p),this.tmp=this._tmp()}function y(){m.call(this,\\\"k256\\\",\\\"ffffffff ffffffff ffffffff ffffffff ffffffff ffffffff fffffffe fffffc2f\\\")}function x(){m.call(this,\\\"p224\\\",\\\"ffffffff ffffffff ffffffff ffffffff 00000000 00000000 00000001\\\")}function b(){m.call(this,\\\"p192\\\",\\\"ffffffff ffffffff ffffffff fffffffe ffffffff ffffffff\\\")}function _(){m.call(this,\\\"25519\\\",\\\"7fffffffffffffff ffffffffffffffff ffffffffffffffff ffffffffffffffed\\\")}function w(t){if(\\\"string\\\"==typeof t){var e=a._prime(t);this.m=e.p,this.prime=e}else n(t.gtn(1),\\\"modulus must be greater than 1\\\"),this.m=t,this.prime=null}function k(t){w.call(this,t),this.shift=this.m.bitLength(),this.shift%26!=0&&(this.shift+=26-this.shift%26),this.r=new a(1).iushln(this.shift),this.r2=this.imod(this.r.sqr()),this.rinv=this.r._invmp(this.m),this.minv=this.rinv.mul(this.r).isubn(1).div(this.m),this.minv=this.minv.umod(this.r),this.minv=this.r.sub(this.minv)}m.prototype._tmp=function(){var t=new a(null);return t.words=new Array(Math.ceil(this.n/13)),t},m.prototype.ireduce=function(t){var e,r=t;do{this.split(r,this.tmp),e=(r=(r=this.imulK(r)).iadd(this.tmp)).bitLength()}while(e>this.n);var n=e<this.n?-1:r.ucmp(this.p);return 0===n?(r.words[0]=0,r.length=1):n>0?r.isub(this.p):r.strip(),r},m.prototype.split=function(t,e){t.iushrn(this.n,0,e)},m.prototype.imulK=function(t){return t.imul(this.k)},i(y,m),y.prototype.split=function(t,e){for(var r=Math.min(t.length,9),n=0;n<r;n++)e.words[n]=t.words[n];if(e.length=r,t.length<=9)return t.words[0]=0,void(t.length=1);var i=t.words[9];for(e.words[e.length++]=4194303&i,n=10;n<t.length;n++){var a=0|t.words[n];t.words[n-10]=(4194303&a)<<4|i>>>22,i=a}i>>>=22,t.words[n-10]=i,0===i&&t.length>10?t.length-=10:t.length-=9},y.prototype.imulK=function(t){t.words[t.length]=0,t.words[t.length+1]=0,t.length+=2;for(var e=0,r=0;r<t.length;r++){var n=0|t.words[r];e+=977*n,t.words[r]=67108863&e,e=64*n+(e/67108864|0)}return 0===t.words[t.length-1]&&(t.length--,0===t.words[t.length-1]&&t.length--),t},i(x,m),i(b,m),i(_,m),_.prototype.imulK=function(t){for(var e=0,r=0;r<t.length;r++){var n=19*(0|t.words[r])+e,i=67108863&n;n>>>=26,t.words[r]=i,e=n}return 0!==e&&(t.words[t.length++]=e),t},a._prime=function(t){if(v[t])return v[t];var e;if(\\\"k256\\\"===t)e=new y;else if(\\\"p224\\\"===t)e=new x;else if(\\\"p192\\\"===t)e=new b;else{if(\\\"p25519\\\"!==t)throw new Error(\\\"Unknown prime \\\"+t);e=new _}return v[t]=e,e},w.prototype._verify1=function(t){n(0===t.negative,\\\"red works only with positives\\\"),n(t.red,\\\"red works only with red numbers\\\")},w.prototype._verify2=function(t,e){n(0==(t.negative|e.negative),\\\"red works only with positives\\\"),n(t.red&&t.red===e.red,\\\"red works only with red numbers\\\")},w.prototype.imod=function(t){return this.prime?this.prime.ireduce(t)._forceRed(this):t.umod(this.m)._forceRed(this)},w.prototype.neg=function(t){return t.isZero()?t.clone():this.m.sub(t)._forceRed(this)},w.prototype.add=function(t,e){this._verify2(t,e);var r=t.add(e);return r.cmp(this.m)>=0&&r.isub(this.m),r._forceRed(this)},w.prototype.iadd=function(t,e){this._verify2(t,e);var r=t.iadd(e);return r.cmp(this.m)>=0&&r.isub(this.m),r},w.prototype.sub=function(t,e){this._verify2(t,e);var r=t.sub(e);return r.cmpn(0)<0&&r.iadd(this.m),r._forceRed(this)},w.prototype.isub=function(t,e){this._verify2(t,e);var r=t.isub(e);return r.cmpn(0)<0&&r.iadd(this.m),r},w.prototype.shl=function(t,e){return this._verify1(t),this.imod(t.ushln(e))},w.prototype.imul=function(t,e){return this._verify2(t,e),this.imod(t.imul(e))},w.prototype.mul=function(t,e){return this._verify2(t,e),this.imod(t.mul(e))},w.prototype.isqr=function(t){return this.imul(t,t.clone())},w.prototype.sqr=function(t){return this.mul(t,t)},w.prototype.sqrt=function(t){if(t.isZero())return t.clone();var e=this.m.andln(3);if(n(e%2==1),3===e){var r=this.m.add(new a(1)).iushrn(2);return this.pow(t,r)}for(var i=this.m.subn(1),o=0;!i.isZero()&&0===i.andln(1);)o++,i.iushrn(1);n(!i.isZero());var s=new a(1).toRed(this),l=s.redNeg(),c=this.m.subn(1).iushrn(1),u=this.m.bitLength();for(u=new a(2*u*u).toRed(this);0!==this.pow(u,c).cmp(l);)u.redIAdd(l);for(var f=this.pow(u,i),h=this.pow(t,i.addn(1).iushrn(1)),p=this.pow(t,i),d=o;0!==p.cmp(s);){for(var g=p,v=0;0!==g.cmp(s);v++)g=g.redSqr();n(v<d);var m=this.pow(f,new a(1).iushln(d-v-1));h=h.redMul(m),f=m.redSqr(),p=p.redMul(f),d=v}return h},w.prototype.invm=function(t){var e=t._invmp(this.m);return 0!==e.negative?(e.negative=0,this.imod(e).redNeg()):this.imod(e)},w.prototype.pow=function(t,e){if(e.isZero())return new a(1).toRed(this);if(0===e.cmpn(1))return t.clone();var r=new Array(16);r[0]=new a(1).toRed(this),r[1]=t;for(var n=2;n<r.length;n++)r[n]=this.mul(r[n-1],t);var i=r[0],o=0,s=0,l=e.bitLength()%26;for(0===l&&(l=26),n=e.length-1;n>=0;n--){for(var c=e.words[n],u=l-1;u>=0;u--){var f=c>>u&1;i!==r[0]&&(i=this.sqr(i)),0!==f||0!==o?(o<<=1,o|=f,(4===++s||0===n&&0===u)&&(i=this.mul(i,r[o]),s=0,o=0)):s=0}l=26}return i},w.prototype.convertTo=function(t){var e=t.umod(this.m);return e===t?e.clone():e},w.prototype.convertFrom=function(t){var e=t.clone();return e.red=null,e},a.mont=function(t){return new k(t)},i(k,w),k.prototype.convertTo=function(t){return this.imod(t.ushln(this.shift))},k.prototype.convertFrom=function(t){var e=this.imod(t.mul(this.rinv));return e.red=null,e},k.prototype.imul=function(t,e){if(t.isZero()||e.isZero())return t.words[0]=0,t.length=1,t;var r=t.imul(e),n=r.maskn(this.shift).mul(this.minv).imaskn(this.shift).mul(this.m),i=r.isub(n).iushrn(this.shift),a=i;return i.cmp(this.m)>=0?a=i.isub(this.m):i.cmpn(0)<0&&(a=i.iadd(this.m)),a._forceRed(this)},k.prototype.mul=function(t,e){if(t.isZero()||e.isZero())return new a(0)._forceRed(this);var r=t.mul(e),n=r.maskn(this.shift).mul(this.minv).imaskn(this.shift).mul(this.m),i=r.isub(n).iushrn(this.shift),o=i;return i.cmp(this.m)>=0?o=i.isub(this.m):i.cmpn(0)<0&&(o=i.iadd(this.m)),o._forceRed(this)},k.prototype.invm=function(t){return this.imod(t._invmp(this.m).mul(this.r2))._forceRed(this)}}(\\\"undefined\\\"==typeof e||e,this)},{buffer:96}],88:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e,r,n,i=t.length,a=0;for(e=0;e<i;++e)a+=t[e].length;var o=new Array(a),s=0;for(e=0;e<i;++e){var l=t[e],c=l.length;for(r=0;r<c;++r){var u=o[s++]=new Array(c-1),f=0;for(n=0;n<c;++n)n!==r&&(u[f++]=l[n]);if(1&r){var h=u[1];u[1]=u[0],u[0]=h}}}return o}},{}],89:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){switch(arguments.length){case 1:return n=[],c(i=t,i,u,!0),n;case 2:return\\\"function\\\"==typeof e?c(t,t,e,!0):function(t,e){return n=[],c(t,e,u,!1),n}(t,e);case 3:return c(t,e,r,!1);default:throw new Error(\\\"box-intersect: Invalid arguments\\\")}var i};var n,i=t(\\\"typedarray-pool\\\"),a=t(\\\"./lib/sweep\\\"),o=t(\\\"./lib/intersect\\\");function s(t,e){for(var r=0;r<t;++r)if(!(e[r]<=e[r+t]))return!0;return!1}function l(t,e,r,n){for(var i=0,a=0,o=0,l=t.length;o<l;++o){var c=t[o];if(!s(e,c)){for(var u=0;u<2*e;++u)r[i++]=c[u];n[a++]=o}}return a}function c(t,e,r,n){var s=t.length,c=e.length;if(!(s<=0||c<=0)){var u=t[0].length>>>1;if(!(u<=0)){var f,h=i.mallocDouble(2*u*s),p=i.mallocInt32(s);if((s=l(t,u,h,p))>0){if(1===u&&n)a.init(s),f=a.sweepComplete(u,r,0,s,h,p,0,s,h,p);else{var d=i.mallocDouble(2*u*c),g=i.mallocInt32(c);(c=l(e,u,d,g))>0&&(a.init(s+c),f=1===u?a.sweepBipartite(u,r,0,s,h,p,0,c,d,g):o(u,r,n,s,h,p,c,d,g),i.free(d),i.free(g))}i.free(h),i.free(p)}return f}}}function u(t,e){n.push([t,e])}},{\\\"./lib/intersect\\\":91,\\\"./lib/sweep\\\":95,\\\"typedarray-pool\\\":532}],90:[function(t,e,r){\\\"use strict\\\";var n=\\\"d\\\",i=\\\"ax\\\",a=\\\"vv\\\",o=\\\"fp\\\",s=\\\"es\\\",l=\\\"rs\\\",c=\\\"re\\\",u=\\\"rb\\\",f=\\\"ri\\\",h=\\\"rp\\\",p=\\\"bs\\\",d=\\\"be\\\",g=\\\"bb\\\",v=\\\"bi\\\",m=\\\"bp\\\",y=\\\"rv\\\",x=\\\"Q\\\",b=[n,i,a,l,c,u,f,p,d,g,v];function _(t){var e=\\\"bruteForce\\\"+(t?\\\"Full\\\":\\\"Partial\\\"),r=[],_=b.slice();t||_.splice(3,0,o);var w=[\\\"function \\\"+e+\\\"(\\\"+_.join()+\\\"){\\\"];function k(e,o){var _=function(t,e,r){var o=\\\"bruteForce\\\"+(t?\\\"Red\\\":\\\"Blue\\\")+(e?\\\"Flip\\\":\\\"\\\")+(r?\\\"Full\\\":\\\"\\\"),_=[\\\"function \\\",o,\\\"(\\\",b.join(),\\\"){\\\",\\\"var \\\",s,\\\"=2*\\\",n,\\\";\\\"],w=\\\"for(var i=\\\"+l+\\\",\\\"+h+\\\"=\\\"+s+\\\"*\\\"+l+\\\";i<\\\"+c+\\\";++i,\\\"+h+\\\"+=\\\"+s+\\\"){var x0=\\\"+u+\\\"[\\\"+i+\\\"+\\\"+h+\\\"],x1=\\\"+u+\\\"[\\\"+i+\\\"+\\\"+h+\\\"+\\\"+n+\\\"],xi=\\\"+f+\\\"[i];\\\",k=\\\"for(var j=\\\"+p+\\\",\\\"+m+\\\"=\\\"+s+\\\"*\\\"+p+\\\";j<\\\"+d+\\\";++j,\\\"+m+\\\"+=\\\"+s+\\\"){var y0=\\\"+g+\\\"[\\\"+i+\\\"+\\\"+m+\\\"],\\\"+(r?\\\"y1=\\\"+g+\\\"[\\\"+i+\\\"+\\\"+m+\\\"+\\\"+n+\\\"],\\\":\\\"\\\")+\\\"yi=\\\"+v+\\\"[j];\\\";return t?_.push(w,x,\\\":\\\",k):_.push(k,x,\\\":\\\",w),r?_.push(\\\"if(y1<x0||x1<y0)continue;\\\"):e?_.push(\\\"if(y0<=x0||x1<y0)continue;\\\"):_.push(\\\"if(y0<x0||x1<y0)continue;\\\"),_.push(\\\"for(var k=\\\"+i+\\\"+1;k<\\\"+n+\\\";++k){var r0=\\\"+u+\\\"[k+\\\"+h+\\\"],r1=\\\"+u+\\\"[k+\\\"+n+\\\"+\\\"+h+\\\"],b0=\\\"+g+\\\"[k+\\\"+m+\\\"],b1=\\\"+g+\\\"[k+\\\"+n+\\\"+\\\"+m+\\\"];if(r1<b0||b1<r0)continue \\\"+x+\\\";}var \\\"+y+\\\"=\\\"+a+\\\"(\\\"),e?_.push(\\\"yi,xi\\\"):_.push(\\\"xi,yi\\\"),_.push(\\\");if(\\\"+y+\\\"!==void 0)return \\\"+y+\\\";}}}\\\"),{name:o,code:_.join(\\\"\\\")}}(e,o,t);r.push(_.code),w.push(\\\"return \\\"+_.name+\\\"(\\\"+b.join()+\\\");\\\")}w.push(\\\"if(\\\"+c+\\\"-\\\"+l+\\\">\\\"+d+\\\"-\\\"+p+\\\"){\\\"),t?(k(!0,!1),w.push(\\\"}else{\\\"),k(!1,!1)):(w.push(\\\"if(\\\"+o+\\\"){\\\"),k(!0,!0),w.push(\\\"}else{\\\"),k(!0,!1),w.push(\\\"}}else{if(\\\"+o+\\\"){\\\"),k(!1,!0),w.push(\\\"}else{\\\"),k(!1,!1),w.push(\\\"}\\\")),w.push(\\\"}}return \\\"+e);var T=r.join(\\\"\\\")+w.join(\\\"\\\");return new Function(T)()}r.partial=_(!1),r.full=_(!0)},{}],91:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,a,u,S,E,C,L){!function(t,e){var r=8*i.log2(e+1)*(t+1)|0,a=i.nextPow2(b*r);w.length<a&&(n.free(w),w=n.mallocInt32(a));var o=i.nextPow2(_*r);k<o&&(n.free(k),k=n.mallocDouble(o))}(t,a+E);var z,O=0,I=2*t;T(O++,0,0,a,0,E,r?16:0,-1/0,1/0),r||T(O++,0,0,E,0,a,1,-1/0,1/0);for(;O>0;){var D=(O-=1)*b,P=w[D],R=w[D+1],F=w[D+2],B=w[D+3],N=w[D+4],j=w[D+5],V=O*_,U=k[V],H=k[V+1],q=1&j,G=!!(16&j),Y=u,W=S,X=C,Z=L;if(q&&(Y=C,W=L,X=u,Z=S),!(2&j&&(F=v(t,P,R,F,Y,W,H),R>=F)||4&j&&(R=m(t,P,R,F,Y,W,U))>=F)){var $=F-R,J=N-B;if(G){if(t*$*($+J)<p){if(void 0!==(z=l.scanComplete(t,P,e,R,F,Y,W,B,N,X,Z)))return z;continue}}else{if(t*Math.min($,J)<f){if(void 0!==(z=o(t,P,e,q,R,F,Y,W,B,N,X,Z)))return z;continue}if(t*$*J<h){if(void 0!==(z=l.scanBipartite(t,P,e,q,R,F,Y,W,B,N,X,Z)))return z;continue}}var K=d(t,P,R,F,Y,W,U,H);if(R<K)if(t*(K-R)<f){if(void 0!==(z=s(t,P+1,e,R,K,Y,W,B,N,X,Z)))return z}else if(P===t-2){if(void 0!==(z=q?l.sweepBipartite(t,e,B,N,X,Z,R,K,Y,W):l.sweepBipartite(t,e,R,K,Y,W,B,N,X,Z)))return z}else T(O++,P+1,R,K,B,N,q,-1/0,1/0),T(O++,P+1,B,N,R,K,1^q,-1/0,1/0);if(K<F){var Q=c(t,P,B,N,X,Z),tt=X[I*Q+P],et=g(t,P,Q,N,X,Z,tt);if(et<N&&T(O++,P,K,F,et,N,(4|q)+(G?16:0),tt,H),B<Q&&T(O++,P,K,F,B,Q,(2|q)+(G?16:0),U,tt),Q+1===et){if(void 0!==(z=G?M(t,P,e,K,F,Y,W,Q,X,Z[Q]):A(t,P,e,q,K,F,Y,W,Q,X,Z[Q])))return z}else if(Q<et){var rt;if(G){if(rt=y(t,P,K,F,Y,W,tt),K<rt){var nt=g(t,P,K,rt,Y,W,tt);if(P===t-2){if(K<nt&&void 0!==(z=l.sweepComplete(t,e,K,nt,Y,W,Q,et,X,Z)))return z;if(nt<rt&&void 0!==(z=l.sweepBipartite(t,e,nt,rt,Y,W,Q,et,X,Z)))return z}else K<nt&&T(O++,P+1,K,nt,Q,et,16,-1/0,1/0),nt<rt&&(T(O++,P+1,nt,rt,Q,et,0,-1/0,1/0),T(O++,P+1,Q,et,nt,rt,1,-1/0,1/0))}}else rt=q?x(t,P,K,F,Y,W,tt):y(t,P,K,F,Y,W,tt),K<rt&&(P===t-2?z=q?l.sweepBipartite(t,e,Q,et,X,Z,K,rt,Y,W):l.sweepBipartite(t,e,K,rt,Y,W,Q,et,X,Z):(T(O++,P+1,K,rt,Q,et,q,-1/0,1/0),T(O++,P+1,Q,et,K,rt,1^q,-1/0,1/0)))}}}}};var n=t(\\\"typedarray-pool\\\"),i=t(\\\"bit-twiddle\\\"),a=t(\\\"./brute\\\"),o=a.partial,s=a.full,l=t(\\\"./sweep\\\"),c=t(\\\"./median\\\"),u=t(\\\"./partition\\\"),f=128,h=1<<22,p=1<<22,d=u(\\\"!(lo>=p0)&&!(p1>=hi)\\\",[\\\"p0\\\",\\\"p1\\\"]),g=u(\\\"lo===p0\\\",[\\\"p0\\\"]),v=u(\\\"lo<p0\\\",[\\\"p0\\\"]),m=u(\\\"hi<=p0\\\",[\\\"p0\\\"]),y=u(\\\"lo<=p0&&p0<=hi\\\",[\\\"p0\\\"]),x=u(\\\"lo<p0&&p0<=hi\\\",[\\\"p0\\\"]),b=6,_=2,w=n.mallocInt32(1024),k=n.mallocDouble(1024);function T(t,e,r,n,i,a,o,s,l){var c=b*t;w[c]=e,w[c+1]=r,w[c+2]=n,w[c+3]=i,w[c+4]=a,w[c+5]=o;var u=_*t;k[u]=s,k[u+1]=l}function A(t,e,r,n,i,a,o,s,l,c,u){var f=2*t,h=l*f,p=c[h+e];t:for(var d=i,g=i*f;d<a;++d,g+=f){var v=o[g+e],m=o[g+e+t];if(!(p<v||m<p)&&(!n||p!==v)){for(var y,x=s[d],b=e+1;b<t;++b){v=o[g+b],m=o[g+b+t];var _=c[h+b],w=c[h+b+t];if(m<_||w<v)continue t}if(void 0!==(y=n?r(u,x):r(x,u)))return y}}}function M(t,e,r,n,i,a,o,s,l,c){var u=2*t,f=s*u,h=l[f+e];t:for(var p=n,d=n*u;p<i;++p,d+=u){var g=o[p];if(g!==c){var v=a[d+e],m=a[d+e+t];if(!(h<v||m<h)){for(var y=e+1;y<t;++y){v=a[d+y],m=a[d+y+t];var x=l[f+y],b=l[f+y+t];if(m<x||b<v)continue t}var _=r(g,c);if(void 0!==_)return _}}}}},{\\\"./brute\\\":90,\\\"./median\\\":92,\\\"./partition\\\":93,\\\"./sweep\\\":95,\\\"bit-twiddle\\\":85,\\\"typedarray-pool\\\":532}],92:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,o,s,l){if(o<=r+1)return r;var c=r,u=o,f=o+r>>>1,h=2*t,p=f,d=s[h*f+e];for(;c<u;){if(u-c<i){a(t,e,c,u,s,l),d=s[h*f+e];break}var g=u-c,v=Math.random()*g+c|0,m=s[h*v+e],y=Math.random()*g+c|0,x=s[h*y+e],b=Math.random()*g+c|0,_=s[h*b+e];m<=x?_>=x?(p=y,d=x):m>=_?(p=v,d=m):(p=b,d=_):x>=_?(p=y,d=x):_>=m?(p=v,d=m):(p=b,d=_);for(var w=h*(u-1),k=h*p,T=0;T<h;++T,++w,++k){var A=s[w];s[w]=s[k],s[k]=A}var M=l[u-1];l[u-1]=l[p],l[p]=M,p=n(t,e,c,u-1,s,l,d);for(var w=h*(u-1),k=h*p,T=0;T<h;++T,++w,++k){var A=s[w];s[w]=s[k],s[k]=A}var M=l[u-1];if(l[u-1]=l[p],l[p]=M,f<p){for(u=p-1;c<u&&s[h*(u-1)+e]===d;)u-=1;u+=1}else{if(!(p<f))break;for(c=p+1;c<u&&s[h*c+e]===d;)c+=1}}return n(t,e,r,f,s,l,s[h*f+e])};var n=t(\\\"./partition\\\")(\\\"lo<p0\\\",[\\\"p0\\\"]),i=8;function a(t,e,r,n,i,a){for(var o=2*t,s=o*(r+1)+e,l=r+1;l<n;++l,s+=o)for(var c=i[s],u=l,f=o*(l-1);u>r&&i[f+e]>c;--u,f-=o){for(var h=f,p=f+o,d=0;d<o;++d,++h,++p){var g=i[h];i[h]=i[p],i[p]=g}var v=a[u];a[u]=a[u-1],a[u-1]=v}}},{\\\"./partition\\\":93}],93:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){var r=\\\"abcdef\\\".split(\\\"\\\").concat(e),i=[];t.indexOf(\\\"lo\\\")>=0&&i.push(\\\"lo=e[k+n]\\\");t.indexOf(\\\"hi\\\")>=0&&i.push(\\\"hi=e[k+o]\\\");return r.push(n.replace(\\\"_\\\",i.join()).replace(\\\"$\\\",t)),Function.apply(void 0,r)};var n=\\\"for(var j=2*a,k=j*c,l=k,m=c,n=b,o=a+b,p=c;d>p;++p,k+=j){var _;if($)if(m===p)m+=1,l+=j;else{for(var s=0;j>s;++s){var t=e[k+s];e[k+s]=e[l],e[l++]=t}var u=f[p];f[p]=f[m],f[m++]=u}}return m\\\"},{}],94:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){e<=4*n?i(0,e-1,t):function t(e,r,f){var h=(r-e+1)/6|0,p=e+h,d=r-h,g=e+r>>1,v=g-h,m=g+h,y=p,x=v,b=g,_=m,w=d,k=e+1,T=r-1,A=0;c(y,x,f)&&(A=y,y=x,x=A);c(_,w,f)&&(A=_,_=w,w=A);c(y,b,f)&&(A=y,y=b,b=A);c(x,b,f)&&(A=x,x=b,b=A);c(y,_,f)&&(A=y,y=_,_=A);c(b,_,f)&&(A=b,b=_,_=A);c(x,w,f)&&(A=x,x=w,w=A);c(x,b,f)&&(A=x,x=b,b=A);c(_,w,f)&&(A=_,_=w,w=A);var M=f[2*x];var S=f[2*x+1];var E=f[2*_];var C=f[2*_+1];var L=2*y;var z=2*b;var O=2*w;var I=2*p;var D=2*g;var P=2*d;for(var R=0;R<2;++R){var F=f[L+R],B=f[z+R],N=f[O+R];f[I+R]=F,f[D+R]=B,f[P+R]=N}o(v,e,f);o(m,r,f);for(var j=k;j<=T;++j)if(u(j,M,S,f))j!==k&&a(j,k,f),++k;else if(!u(j,E,C,f))for(;;){if(u(T,E,C,f)){u(T,M,S,f)?(s(j,k,T,f),++k,--T):(a(j,T,f),--T);break}if(--T<j)break}l(e,k-1,M,S,f);l(r,T+1,E,C,f);k-2-e<=n?i(e,k-2,f):t(e,k-2,f);r-(T+2)<=n?i(T+2,r,f):t(T+2,r,f);T-k<=n?i(k,T,f):t(k,T,f)}(0,e-1,t)};var n=32;function i(t,e,r){for(var n=2*(t+1),i=t+1;i<=e;++i){for(var a=r[n++],o=r[n++],s=i,l=n-2;s-- >t;){var c=r[l-2],u=r[l-1];if(c<a)break;if(c===a&&u<o)break;r[l]=c,r[l+1]=u,l-=2}r[l]=a,r[l+1]=o}}function a(t,e,r){e*=2;var n=r[t*=2],i=r[t+1];r[t]=r[e],r[t+1]=r[e+1],r[e]=n,r[e+1]=i}function o(t,e,r){e*=2,r[t*=2]=r[e],r[t+1]=r[e+1]}function s(t,e,r,n){e*=2,r*=2;var i=n[t*=2],a=n[t+1];n[t]=n[e],n[t+1]=n[e+1],n[e]=n[r],n[e+1]=n[r+1],n[r]=i,n[r+1]=a}function l(t,e,r,n,i){e*=2,i[t*=2]=i[e],i[e]=r,i[t+1]=i[e+1],i[e+1]=n}function c(t,e,r){e*=2;var n=r[t*=2],i=r[e];return!(n<i)&&(n!==i||r[t+1]>r[e+1])}function u(t,e,r,n){var i=n[t*=2];return i<e||i===e&&n[t+1]<r}},{}],95:[function(t,e,r){\\\"use strict\\\";e.exports={init:function(t){var e=i.nextPow2(t);s.length<e&&(n.free(s),s=n.mallocInt32(e));l.length<e&&(n.free(l),l=n.mallocInt32(e));c.length<e&&(n.free(c),c=n.mallocInt32(e));u.length<e&&(n.free(u),u=n.mallocInt32(e));f.length<e&&(n.free(f),f=n.mallocInt32(e));h.length<e&&(n.free(h),h=n.mallocInt32(e));var r=8*e;p.length<r&&(n.free(p),p=n.mallocDouble(r))},sweepBipartite:function(t,e,r,n,i,f,h,v,m,y){for(var x=0,b=2*t,_=t-1,w=b-1,k=r;k<n;++k){var T=f[k],A=b*k;p[x++]=i[A+_],p[x++]=-(T+1),p[x++]=i[A+w],p[x++]=T}for(var k=h;k<v;++k){var T=y[k]+o,M=b*k;p[x++]=m[M+_],p[x++]=-T,p[x++]=m[M+w],p[x++]=T}var S=x>>>1;a(p,S);for(var E=0,C=0,k=0;k<S;++k){var L=0|p[2*k+1];if(L>=o)d(c,u,C--,L=L-o|0);else if(L>=0)d(s,l,E--,L);else if(L<=-o){L=-L-o|0;for(var z=0;z<E;++z){var O=e(s[z],L);if(void 0!==O)return O}g(c,u,C++,L)}else{L=-L-1|0;for(var z=0;z<C;++z){var O=e(L,c[z]);if(void 0!==O)return O}g(s,l,E++,L)}}},sweepComplete:function(t,e,r,n,i,o,v,m,y,x){for(var b=0,_=2*t,w=t-1,k=_-1,T=r;T<n;++T){var A=o[T]+1<<1,M=_*T;p[b++]=i[M+w],p[b++]=-A,p[b++]=i[M+k],p[b++]=A}for(var T=v;T<m;++T){var A=x[T]+1<<1,S=_*T;p[b++]=y[S+w],p[b++]=1|-A,p[b++]=y[S+k],p[b++]=1|A}var E=b>>>1;a(p,E);for(var C=0,L=0,z=0,T=0;T<E;++T){var O=0|p[2*T+1],I=1&O;if(T<E-1&&O>>1==p[2*T+3]>>1&&(I=2,T+=1),O<0){for(var D=-(O>>1)-1,P=0;P<z;++P){var R=e(f[P],D);if(void 0!==R)return R}if(0!==I)for(var P=0;P<C;++P){var R=e(s[P],D);if(void 0!==R)return R}if(1!==I)for(var P=0;P<L;++P){var R=e(c[P],D);if(void 0!==R)return R}0===I?g(s,l,C++,D):1===I?g(c,u,L++,D):2===I&&g(f,h,z++,D)}else{var D=(O>>1)-1;0===I?d(s,l,C--,D):1===I?d(c,u,L--,D):2===I&&d(f,h,z--,D)}}},scanBipartite:function(t,e,r,n,i,c,u,f,h,v,m,y){var x=0,b=2*t,_=e,w=e+t,k=1,T=1;n?T=o:k=o;for(var A=i;A<c;++A){var M=A+k,S=b*A;p[x++]=u[S+_],p[x++]=-M,p[x++]=u[S+w],p[x++]=M}for(var A=h;A<v;++A){var M=A+T,E=b*A;p[x++]=m[E+_],p[x++]=-M}var C=x>>>1;a(p,C);for(var L=0,A=0;A<C;++A){var z=0|p[2*A+1];if(z<0){var M=-z,O=!1;if(M>=o?(O=!n,M-=o):(O=!!n,M-=1),O)g(s,l,L++,M);else{var I=y[M],D=b*M,P=m[D+e+1],R=m[D+e+1+t];t:for(var F=0;F<L;++F){var B=s[F],N=b*B;if(!(R<u[N+e+1]||u[N+e+1+t]<P)){for(var j=e+2;j<t;++j)if(m[D+j+t]<u[N+j]||u[N+j+t]<m[D+j])continue t;var V,U=f[B];if(void 0!==(V=n?r(I,U):r(U,I)))return V}}}}else d(s,l,L--,z-k)}},scanComplete:function(t,e,r,n,i,l,c,u,f,h,d){for(var g=0,v=2*t,m=e,y=e+t,x=n;x<i;++x){var b=x+o,_=v*x;p[g++]=l[_+m],p[g++]=-b,p[g++]=l[_+y],p[g++]=b}for(var x=u;x<f;++x){var b=x+1,w=v*x;p[g++]=h[w+m],p[g++]=-b}var k=g>>>1;a(p,k);for(var T=0,x=0;x<k;++x){var A=0|p[2*x+1];if(A<0){var b=-A;if(b>=o)s[T++]=b-o;else{var M=d[b-=1],S=v*b,E=h[S+e+1],C=h[S+e+1+t];t:for(var L=0;L<T;++L){var z=s[L],O=c[z];if(O===M)break;var I=v*z;if(!(C<l[I+e+1]||l[I+e+1+t]<E)){for(var D=e+2;D<t;++D)if(h[S+D+t]<l[I+D]||l[I+D+t]<h[S+D])continue t;var P=r(O,M);if(void 0!==P)return P}}}}else{for(var b=A-o,L=T-1;L>=0;--L)if(s[L]===b){for(var D=L+1;D<T;++D)s[D-1]=s[D];break}--T}}}};var n=t(\\\"typedarray-pool\\\"),i=t(\\\"bit-twiddle\\\"),a=t(\\\"./sort\\\"),o=1<<28,s=n.mallocInt32(1024),l=n.mallocInt32(1024),c=n.mallocInt32(1024),u=n.mallocInt32(1024),f=n.mallocInt32(1024),h=n.mallocInt32(1024),p=n.mallocDouble(8192);function d(t,e,r,n){var i=e[n],a=t[r-1];t[i]=a,e[a]=i}function g(t,e,r,n){t[r]=n,e[n]=r}},{\\\"./sort\\\":94,\\\"bit-twiddle\\\":85,\\\"typedarray-pool\\\":532}],96:[function(t,e,r){},{}],97:[function(t,e,r){var n=Object.create||function(t){var e=function(){};return e.prototype=t,new e},i=Object.keys||function(t){var e=[];for(var r in t)Object.prototype.hasOwnProperty.call(t,r)&&e.push(r);return r},a=Function.prototype.bind||function(t){var e=this;return function(){return e.apply(t,arguments)}};function o(){this._events&&Object.prototype.hasOwnProperty.call(this,\\\"_events\\\")||(this._events=n(null),this._eventsCount=0),this._maxListeners=this._maxListeners||void 0}e.exports=o,o.EventEmitter=o,o.prototype._events=void 0,o.prototype._maxListeners=void 0;var s,l=10;try{var c={};Object.defineProperty&&Object.defineProperty(c,\\\"x\\\",{value:0}),s=0===c.x}catch(t){s=!1}function u(t){return void 0===t._maxListeners?o.defaultMaxListeners:t._maxListeners}function f(t,e,r,i){var a,o,s;if(\\\"function\\\"!=typeof r)throw new TypeError('\\\"listener\\\" argument must be a function');if((o=t._events)?(o.newListener&&(t.emit(\\\"newListener\\\",e,r.listener?r.listener:r),o=t._events),s=o[e]):(o=t._events=n(null),t._eventsCount=0),s){if(\\\"function\\\"==typeof s?s=o[e]=i?[r,s]:[s,r]:i?s.unshift(r):s.push(r),!s.warned&&(a=u(t))&&a>0&&s.length>a){s.warned=!0;var l=new Error(\\\"Possible EventEmitter memory leak detected. \\\"+s.length+' \\\"'+String(e)+'\\\" listeners added. Use emitter.setMaxListeners() to increase limit.');l.name=\\\"MaxListenersExceededWarning\\\",l.emitter=t,l.type=e,l.count=s.length,\\\"object\\\"==typeof console&&console.warn&&console.warn(\\\"%s: %s\\\",l.name,l.message)}}else s=o[e]=r,++t._eventsCount;return t}function h(){if(!this.fired)switch(this.target.removeListener(this.type,this.wrapFn),this.fired=!0,arguments.length){case 0:return this.listener.call(this.target);case 1:return this.listener.call(this.target,arguments[0]);case 2:return this.listener.call(this.target,arguments[0],arguments[1]);case 3:return this.listener.call(this.target,arguments[0],arguments[1],arguments[2]);default:for(var t=new Array(arguments.length),e=0;e<t.length;++e)t[e]=arguments[e];this.listener.apply(this.target,t)}}function p(t,e,r){var n={fired:!1,wrapFn:void 0,target:t,type:e,listener:r},i=a.call(h,n);return i.listener=r,n.wrapFn=i,i}function d(t,e,r){var n=t._events;if(!n)return[];var i=n[e];return i?\\\"function\\\"==typeof i?r?[i.listener||i]:[i]:r?function(t){for(var e=new Array(t.length),r=0;r<e.length;++r)e[r]=t[r].listener||t[r];return e}(i):v(i,i.length):[]}function g(t){var e=this._events;if(e){var r=e[t];if(\\\"function\\\"==typeof r)return 1;if(r)return r.length}return 0}function v(t,e){for(var r=new Array(e),n=0;n<e;++n)r[n]=t[n];return r}s?Object.defineProperty(o,\\\"defaultMaxListeners\\\",{enumerable:!0,get:function(){return l},set:function(t){if(\\\"number\\\"!=typeof t||t<0||t!=t)throw new TypeError('\\\"defaultMaxListeners\\\" must be a positive number');l=t}}):o.defaultMaxListeners=l,o.prototype.setMaxListeners=function(t){if(\\\"number\\\"!=typeof t||t<0||isNaN(t))throw new TypeError('\\\"n\\\" argument must be a positive number');return this._maxListeners=t,this},o.prototype.getMaxListeners=function(){return u(this)},o.prototype.emit=function(t){var e,r,n,i,a,o,s=\\\"error\\\"===t;if(o=this._events)s=s&&null==o.error;else if(!s)return!1;if(s){if(arguments.length>1&&(e=arguments[1]),e instanceof Error)throw e;var l=new Error('Unhandled \\\"error\\\" event. ('+e+\\\")\\\");throw l.context=e,l}if(!(r=o[t]))return!1;var c=\\\"function\\\"==typeof r;switch(n=arguments.length){case 1:!function(t,e,r){if(e)t.call(r);else for(var n=t.length,i=v(t,n),a=0;a<n;++a)i[a].call(r)}(r,c,this);break;case 2:!function(t,e,r,n){if(e)t.call(r,n);else for(var i=t.length,a=v(t,i),o=0;o<i;++o)a[o].call(r,n)}(r,c,this,arguments[1]);break;case 3:!function(t,e,r,n,i){if(e)t.call(r,n,i);else for(var a=t.length,o=v(t,a),s=0;s<a;++s)o[s].call(r,n,i)}(r,c,this,arguments[1],arguments[2]);break;case 4:!function(t,e,r,n,i,a){if(e)t.call(r,n,i,a);else for(var o=t.length,s=v(t,o),l=0;l<o;++l)s[l].call(r,n,i,a)}(r,c,this,arguments[1],arguments[2],arguments[3]);break;default:for(i=new Array(n-1),a=1;a<n;a++)i[a-1]=arguments[a];!function(t,e,r,n){if(e)t.apply(r,n);else for(var i=t.length,a=v(t,i),o=0;o<i;++o)a[o].apply(r,n)}(r,c,this,i)}return!0},o.prototype.addListener=function(t,e){return f(this,t,e,!1)},o.prototype.on=o.prototype.addListener,o.prototype.prependListener=function(t,e){return f(this,t,e,!0)},o.prototype.once=function(t,e){if(\\\"function\\\"!=typeof e)throw new TypeError('\\\"listener\\\" argument must be a function');return this.on(t,p(this,t,e)),this},o.prototype.prependOnceListener=function(t,e){if(\\\"function\\\"!=typeof e)throw new TypeError('\\\"listener\\\" argument must be a function');return this.prependListener(t,p(this,t,e)),this},o.prototype.removeListener=function(t,e){var r,i,a,o,s;if(\\\"function\\\"!=typeof e)throw new TypeError('\\\"listener\\\" argument must be a function');if(!(i=this._events))return this;if(!(r=i[t]))return this;if(r===e||r.listener===e)0==--this._eventsCount?this._events=n(null):(delete i[t],i.removeListener&&this.emit(\\\"removeListener\\\",t,r.listener||e));else if(\\\"function\\\"!=typeof r){for(a=-1,o=r.length-1;o>=0;o--)if(r[o]===e||r[o].listener===e){s=r[o].listener,a=o;break}if(a<0)return this;0===a?r.shift():function(t,e){for(var r=e,n=r+1,i=t.length;n<i;r+=1,n+=1)t[r]=t[n];t.pop()}(r,a),1===r.length&&(i[t]=r[0]),i.removeListener&&this.emit(\\\"removeListener\\\",t,s||e)}return this},o.prototype.removeAllListeners=function(t){var e,r,a;if(!(r=this._events))return this;if(!r.removeListener)return 0===arguments.length?(this._events=n(null),this._eventsCount=0):r[t]&&(0==--this._eventsCount?this._events=n(null):delete r[t]),this;if(0===arguments.length){var o,s=i(r);for(a=0;a<s.length;++a)\\\"removeListener\\\"!==(o=s[a])&&this.removeAllListeners(o);return this.removeAllListeners(\\\"removeListener\\\"),this._events=n(null),this._eventsCount=0,this}if(\\\"function\\\"==typeof(e=r[t]))this.removeListener(t,e);else if(e)for(a=e.length-1;a>=0;a--)this.removeListener(t,e[a]);return this},o.prototype.listeners=function(t){return d(this,t,!0)},o.prototype.rawListeners=function(t){return d(this,t,!1)},o.listenerCount=function(t,e){return\\\"function\\\"==typeof t.listenerCount?t.listenerCount(e):g.call(t,e)},o.prototype.listenerCount=g,o.prototype.eventNames=function(){return this._eventsCount>0?Reflect.ownKeys(this._events):[]}},{}],98:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"base64-js\\\"),i=t(\\\"ieee754\\\");r.Buffer=s,r.SlowBuffer=function(t){+t!=t&&(t=0);return s.alloc(+t)},r.INSPECT_MAX_BYTES=50;var a=2147483647;function o(t){if(t>a)throw new RangeError('The value \\\"'+t+'\\\" is invalid for option \\\"size\\\"');var e=new Uint8Array(t);return e.__proto__=s.prototype,e}function s(t,e,r){if(\\\"number\\\"==typeof t){if(\\\"string\\\"==typeof e)throw new TypeError('The \\\"string\\\" argument must be of type string. Received type number');return u(t)}return l(t,e,r)}function l(t,e,r){if(\\\"string\\\"==typeof t)return function(t,e){\\\"string\\\"==typeof e&&\\\"\\\"!==e||(e=\\\"utf8\\\");if(!s.isEncoding(e))throw new TypeError(\\\"Unknown encoding: \\\"+e);var r=0|p(t,e),n=o(r),i=n.write(t,e);i!==r&&(n=n.slice(0,i));return n}(t,e);if(ArrayBuffer.isView(t))return f(t);if(null==t)throw TypeError(\\\"The first argument must be one of type string, Buffer, ArrayBuffer, Array, or Array-like Object. Received type \\\"+typeof t);if(j(t,ArrayBuffer)||t&&j(t.buffer,ArrayBuffer))return function(t,e,r){if(e<0||t.byteLength<e)throw new RangeError('\\\"offset\\\" is outside of buffer bounds');if(t.byteLength<e+(r||0))throw new RangeError('\\\"length\\\" is outside of buffer bounds');var n;n=void 0===e&&void 0===r?new Uint8Array(t):void 0===r?new Uint8Array(t,e):new Uint8Array(t,e,r);return n.__proto__=s.prototype,n}(t,e,r);if(\\\"number\\\"==typeof t)throw new TypeError('The \\\"value\\\" argument must not be of type number. Received type number');var n=t.valueOf&&t.valueOf();if(null!=n&&n!==t)return s.from(n,e,r);var i=function(t){if(s.isBuffer(t)){var e=0|h(t.length),r=o(e);return 0===r.length?r:(t.copy(r,0,0,e),r)}if(void 0!==t.length)return\\\"number\\\"!=typeof t.length||V(t.length)?o(0):f(t);if(\\\"Buffer\\\"===t.type&&Array.isArray(t.data))return f(t.data)}(t);if(i)return i;if(\\\"undefined\\\"!=typeof Symbol&&null!=Symbol.toPrimitive&&\\\"function\\\"==typeof t[Symbol.toPrimitive])return s.from(t[Symbol.toPrimitive](\\\"string\\\"),e,r);throw new TypeError(\\\"The first argument must be one of type string, Buffer, ArrayBuffer, Array, or Array-like Object. Received type \\\"+typeof t)}function c(t){if(\\\"number\\\"!=typeof t)throw new TypeError('\\\"size\\\" argument must be of type number');if(t<0)throw new RangeError('The value \\\"'+t+'\\\" is invalid for option \\\"size\\\"')}function u(t){return c(t),o(t<0?0:0|h(t))}function f(t){for(var e=t.length<0?0:0|h(t.length),r=o(e),n=0;n<e;n+=1)r[n]=255&t[n];return r}function h(t){if(t>=a)throw new RangeError(\\\"Attempt to allocate Buffer larger than maximum size: 0x\\\"+a.toString(16)+\\\" bytes\\\");return 0|t}function p(t,e){if(s.isBuffer(t))return t.length;if(ArrayBuffer.isView(t)||j(t,ArrayBuffer))return t.byteLength;if(\\\"string\\\"!=typeof t)throw new TypeError('The \\\"string\\\" argument must be one of type string, Buffer, or ArrayBuffer. Received type '+typeof t);var r=t.length,n=arguments.length>2&&!0===arguments[2];if(!n&&0===r)return 0;for(var i=!1;;)switch(e){case\\\"ascii\\\":case\\\"latin1\\\":case\\\"binary\\\":return r;case\\\"utf8\\\":case\\\"utf-8\\\":return F(t).length;case\\\"ucs2\\\":case\\\"ucs-2\\\":case\\\"utf16le\\\":case\\\"utf-16le\\\":return 2*r;case\\\"hex\\\":return r>>>1;case\\\"base64\\\":return B(t).length;default:if(i)return n?-1:F(t).length;e=(\\\"\\\"+e).toLowerCase(),i=!0}}function d(t,e,r){var n=t[e];t[e]=t[r],t[r]=n}function g(t,e,r,n,i){if(0===t.length)return-1;if(\\\"string\\\"==typeof r?(n=r,r=0):r>2147483647?r=2147483647:r<-2147483648&&(r=-2147483648),V(r=+r)&&(r=i?0:t.length-1),r<0&&(r=t.length+r),r>=t.length){if(i)return-1;r=t.length-1}else if(r<0){if(!i)return-1;r=0}if(\\\"string\\\"==typeof e&&(e=s.from(e,n)),s.isBuffer(e))return 0===e.length?-1:v(t,e,r,n,i);if(\\\"number\\\"==typeof e)return e&=255,\\\"function\\\"==typeof Uint8Array.prototype.indexOf?i?Uint8Array.prototype.indexOf.call(t,e,r):Uint8Array.prototype.lastIndexOf.call(t,e,r):v(t,[e],r,n,i);throw new TypeError(\\\"val must be string, number or Buffer\\\")}function v(t,e,r,n,i){var a,o=1,s=t.length,l=e.length;if(void 0!==n&&(\\\"ucs2\\\"===(n=String(n).toLowerCase())||\\\"ucs-2\\\"===n||\\\"utf16le\\\"===n||\\\"utf-16le\\\"===n)){if(t.length<2||e.length<2)return-1;o=2,s/=2,l/=2,r/=2}function c(t,e){return 1===o?t[e]:t.readUInt16BE(e*o)}if(i){var u=-1;for(a=r;a<s;a++)if(c(t,a)===c(e,-1===u?0:a-u)){if(-1===u&&(u=a),a-u+1===l)return u*o}else-1!==u&&(a-=a-u),u=-1}else for(r+l>s&&(r=s-l),a=r;a>=0;a--){for(var f=!0,h=0;h<l;h++)if(c(t,a+h)!==c(e,h)){f=!1;break}if(f)return a}return-1}function m(t,e,r,n){r=Number(r)||0;var i=t.length-r;n?(n=Number(n))>i&&(n=i):n=i;var a=e.length;n>a/2&&(n=a/2);for(var o=0;o<n;++o){var s=parseInt(e.substr(2*o,2),16);if(V(s))return o;t[r+o]=s}return o}function y(t,e,r,n){return N(F(e,t.length-r),t,r,n)}function x(t,e,r,n){return N(function(t){for(var e=[],r=0;r<t.length;++r)e.push(255&t.charCodeAt(r));return e}(e),t,r,n)}function b(t,e,r,n){return x(t,e,r,n)}function _(t,e,r,n){return N(B(e),t,r,n)}function w(t,e,r,n){return N(function(t,e){for(var r,n,i,a=[],o=0;o<t.length&&!((e-=2)<0);++o)r=t.charCodeAt(o),n=r>>8,i=r%256,a.push(i),a.push(n);return a}(e,t.length-r),t,r,n)}function k(t,e,r){return 0===e&&r===t.length?n.fromByteArray(t):n.fromByteArray(t.slice(e,r))}function T(t,e,r){r=Math.min(t.length,r);for(var n=[],i=e;i<r;){var a,o,s,l,c=t[i],u=null,f=c>239?4:c>223?3:c>191?2:1;if(i+f<=r)switch(f){case 1:c<128&&(u=c);break;case 2:128==(192&(a=t[i+1]))&&(l=(31&c)<<6|63&a)>127&&(u=l);break;case 3:a=t[i+1],o=t[i+2],128==(192&a)&&128==(192&o)&&(l=(15&c)<<12|(63&a)<<6|63&o)>2047&&(l<55296||l>57343)&&(u=l);break;case 4:a=t[i+1],o=t[i+2],s=t[i+3],128==(192&a)&&128==(192&o)&&128==(192&s)&&(l=(15&c)<<18|(63&a)<<12|(63&o)<<6|63&s)>65535&&l<1114112&&(u=l)}null===u?(u=65533,f=1):u>65535&&(u-=65536,n.push(u>>>10&1023|55296),u=56320|1023&u),n.push(u),i+=f}return function(t){var e=t.length;if(e<=A)return String.fromCharCode.apply(String,t);var r=\\\"\\\",n=0;for(;n<e;)r+=String.fromCharCode.apply(String,t.slice(n,n+=A));return r}(n)}r.kMaxLength=a,s.TYPED_ARRAY_SUPPORT=function(){try{var t=new Uint8Array(1);return t.__proto__={__proto__:Uint8Array.prototype,foo:function(){return 42}},42===t.foo()}catch(t){return!1}}(),s.TYPED_ARRAY_SUPPORT||\\\"undefined\\\"==typeof console||\\\"function\\\"!=typeof console.error||console.error(\\\"This browser lacks typed array (Uint8Array) support which is required by `buffer` v5.x. Use `buffer` v4.x if you require old browser support.\\\"),Object.defineProperty(s.prototype,\\\"parent\\\",{enumerable:!0,get:function(){if(s.isBuffer(this))return this.buffer}}),Object.defineProperty(s.prototype,\\\"offset\\\",{enumerable:!0,get:function(){if(s.isBuffer(this))return this.byteOffset}}),\\\"undefined\\\"!=typeof Symbol&&null!=Symbol.species&&s[Symbol.species]===s&&Object.defineProperty(s,Symbol.species,{value:null,configurable:!0,enumerable:!1,writable:!1}),s.poolSize=8192,s.from=function(t,e,r){return l(t,e,r)},s.prototype.__proto__=Uint8Array.prototype,s.__proto__=Uint8Array,s.alloc=function(t,e,r){return function(t,e,r){return c(t),t<=0?o(t):void 0!==e?\\\"string\\\"==typeof r?o(t).fill(e,r):o(t).fill(e):o(t)}(t,e,r)},s.allocUnsafe=function(t){return u(t)},s.allocUnsafeSlow=function(t){return u(t)},s.isBuffer=function(t){return null!=t&&!0===t._isBuffer&&t!==s.prototype},s.compare=function(t,e){if(j(t,Uint8Array)&&(t=s.from(t,t.offset,t.byteLength)),j(e,Uint8Array)&&(e=s.from(e,e.offset,e.byteLength)),!s.isBuffer(t)||!s.isBuffer(e))throw new TypeError('The \\\"buf1\\\", \\\"buf2\\\" arguments must be one of type Buffer or Uint8Array');if(t===e)return 0;for(var r=t.length,n=e.length,i=0,a=Math.min(r,n);i<a;++i)if(t[i]!==e[i]){r=t[i],n=e[i];break}return r<n?-1:n<r?1:0},s.isEncoding=function(t){switch(String(t).toLowerCase()){case\\\"hex\\\":case\\\"utf8\\\":case\\\"utf-8\\\":case\\\"ascii\\\":case\\\"latin1\\\":case\\\"binary\\\":case\\\"base64\\\":case\\\"ucs2\\\":case\\\"ucs-2\\\":case\\\"utf16le\\\":case\\\"utf-16le\\\":return!0;default:return!1}},s.concat=function(t,e){if(!Array.isArray(t))throw new TypeError('\\\"list\\\" argument must be an Array of Buffers');if(0===t.length)return s.alloc(0);var r;if(void 0===e)for(e=0,r=0;r<t.length;++r)e+=t[r].length;var n=s.allocUnsafe(e),i=0;for(r=0;r<t.length;++r){var a=t[r];if(j(a,Uint8Array)&&(a=s.from(a)),!s.isBuffer(a))throw new TypeError('\\\"list\\\" argument must be an Array of Buffers');a.copy(n,i),i+=a.length}return n},s.byteLength=p,s.prototype._isBuffer=!0,s.prototype.swap16=function(){var t=this.length;if(t%2!=0)throw new RangeError(\\\"Buffer size must be a multiple of 16-bits\\\");for(var e=0;e<t;e+=2)d(this,e,e+1);return this},s.prototype.swap32=function(){var t=this.length;if(t%4!=0)throw new RangeError(\\\"Buffer size must be a multiple of 32-bits\\\");for(var e=0;e<t;e+=4)d(this,e,e+3),d(this,e+1,e+2);return this},s.prototype.swap64=function(){var t=this.length;if(t%8!=0)throw new RangeError(\\\"Buffer size must be a multiple of 64-bits\\\");for(var e=0;e<t;e+=8)d(this,e,e+7),d(this,e+1,e+6),d(this,e+2,e+5),d(this,e+3,e+4);return this},s.prototype.toString=function(){var t=this.length;return 0===t?\\\"\\\":0===arguments.length?T(this,0,t):function(t,e,r){var n=!1;if((void 0===e||e<0)&&(e=0),e>this.length)return\\\"\\\";if((void 0===r||r>this.length)&&(r=this.length),r<=0)return\\\"\\\";if((r>>>=0)<=(e>>>=0))return\\\"\\\";for(t||(t=\\\"utf8\\\");;)switch(t){case\\\"hex\\\":return E(this,e,r);case\\\"utf8\\\":case\\\"utf-8\\\":return T(this,e,r);case\\\"ascii\\\":return M(this,e,r);case\\\"latin1\\\":case\\\"binary\\\":return S(this,e,r);case\\\"base64\\\":return k(this,e,r);case\\\"ucs2\\\":case\\\"ucs-2\\\":case\\\"utf16le\\\":case\\\"utf-16le\\\":return C(this,e,r);default:if(n)throw new TypeError(\\\"Unknown encoding: \\\"+t);t=(t+\\\"\\\").toLowerCase(),n=!0}}.apply(this,arguments)},s.prototype.toLocaleString=s.prototype.toString,s.prototype.equals=function(t){if(!s.isBuffer(t))throw new TypeError(\\\"Argument must be a Buffer\\\");return this===t||0===s.compare(this,t)},s.prototype.inspect=function(){var t=\\\"\\\",e=r.INSPECT_MAX_BYTES;return t=this.toString(\\\"hex\\\",0,e).replace(/(.{2})/g,\\\"$1 \\\").trim(),this.length>e&&(t+=\\\" ... \\\"),\\\"<Buffer \\\"+t+\\\">\\\"},s.prototype.compare=function(t,e,r,n,i){if(j(t,Uint8Array)&&(t=s.from(t,t.offset,t.byteLength)),!s.isBuffer(t))throw new TypeError('The \\\"target\\\" argument must be one of type Buffer or Uint8Array. Received type '+typeof t);if(void 0===e&&(e=0),void 0===r&&(r=t?t.length:0),void 0===n&&(n=0),void 0===i&&(i=this.length),e<0||r>t.length||n<0||i>this.length)throw new RangeError(\\\"out of range index\\\");if(n>=i&&e>=r)return 0;if(n>=i)return-1;if(e>=r)return 1;if(this===t)return 0;for(var a=(i>>>=0)-(n>>>=0),o=(r>>>=0)-(e>>>=0),l=Math.min(a,o),c=this.slice(n,i),u=t.slice(e,r),f=0;f<l;++f)if(c[f]!==u[f]){a=c[f],o=u[f];break}return a<o?-1:o<a?1:0},s.prototype.includes=function(t,e,r){return-1!==this.indexOf(t,e,r)},s.prototype.indexOf=function(t,e,r){return g(this,t,e,r,!0)},s.prototype.lastIndexOf=function(t,e,r){return g(this,t,e,r,!1)},s.prototype.write=function(t,e,r,n){if(void 0===e)n=\\\"utf8\\\",r=this.length,e=0;else if(void 0===r&&\\\"string\\\"==typeof e)n=e,r=this.length,e=0;else{if(!isFinite(e))throw new Error(\\\"Buffer.write(string, encoding, offset[, length]) is no longer supported\\\");e>>>=0,isFinite(r)?(r>>>=0,void 0===n&&(n=\\\"utf8\\\")):(n=r,r=void 0)}var i=this.length-e;if((void 0===r||r>i)&&(r=i),t.length>0&&(r<0||e<0)||e>this.length)throw new RangeError(\\\"Attempt to write outside buffer bounds\\\");n||(n=\\\"utf8\\\");for(var a=!1;;)switch(n){case\\\"hex\\\":return m(this,t,e,r);case\\\"utf8\\\":case\\\"utf-8\\\":return y(this,t,e,r);case\\\"ascii\\\":return x(this,t,e,r);case\\\"latin1\\\":case\\\"binary\\\":return b(this,t,e,r);case\\\"base64\\\":return _(this,t,e,r);case\\\"ucs2\\\":case\\\"ucs-2\\\":case\\\"utf16le\\\":case\\\"utf-16le\\\":return w(this,t,e,r);default:if(a)throw new TypeError(\\\"Unknown encoding: \\\"+n);n=(\\\"\\\"+n).toLowerCase(),a=!0}},s.prototype.toJSON=function(){return{type:\\\"Buffer\\\",data:Array.prototype.slice.call(this._arr||this,0)}};var A=4096;function M(t,e,r){var n=\\\"\\\";r=Math.min(t.length,r);for(var i=e;i<r;++i)n+=String.fromCharCode(127&t[i]);return n}function S(t,e,r){var n=\\\"\\\";r=Math.min(t.length,r);for(var i=e;i<r;++i)n+=String.fromCharCode(t[i]);return n}function E(t,e,r){var n=t.length;(!e||e<0)&&(e=0),(!r||r<0||r>n)&&(r=n);for(var i=\\\"\\\",a=e;a<r;++a)i+=R(t[a]);return i}function C(t,e,r){for(var n=t.slice(e,r),i=\\\"\\\",a=0;a<n.length;a+=2)i+=String.fromCharCode(n[a]+256*n[a+1]);return i}function L(t,e,r){if(t%1!=0||t<0)throw new RangeError(\\\"offset is not uint\\\");if(t+e>r)throw new RangeError(\\\"Trying to access beyond buffer length\\\")}function z(t,e,r,n,i,a){if(!s.isBuffer(t))throw new TypeError('\\\"buffer\\\" argument must be a Buffer instance');if(e>i||e<a)throw new RangeError('\\\"value\\\" argument is out of bounds');if(r+n>t.length)throw new RangeError(\\\"Index out of range\\\")}function O(t,e,r,n,i,a){if(r+n>t.length)throw new RangeError(\\\"Index out of range\\\");if(r<0)throw new RangeError(\\\"Index out of range\\\")}function I(t,e,r,n,a){return e=+e,r>>>=0,a||O(t,0,r,4),i.write(t,e,r,n,23,4),r+4}function D(t,e,r,n,a){return e=+e,r>>>=0,a||O(t,0,r,8),i.write(t,e,r,n,52,8),r+8}s.prototype.slice=function(t,e){var r=this.length;(t=~~t)<0?(t+=r)<0&&(t=0):t>r&&(t=r),(e=void 0===e?r:~~e)<0?(e+=r)<0&&(e=0):e>r&&(e=r),e<t&&(e=t);var n=this.subarray(t,e);return n.__proto__=s.prototype,n},s.prototype.readUIntLE=function(t,e,r){t>>>=0,e>>>=0,r||L(t,e,this.length);for(var n=this[t],i=1,a=0;++a<e&&(i*=256);)n+=this[t+a]*i;return n},s.prototype.readUIntBE=function(t,e,r){t>>>=0,e>>>=0,r||L(t,e,this.length);for(var n=this[t+--e],i=1;e>0&&(i*=256);)n+=this[t+--e]*i;return n},s.prototype.readUInt8=function(t,e){return t>>>=0,e||L(t,1,this.length),this[t]},s.prototype.readUInt16LE=function(t,e){return t>>>=0,e||L(t,2,this.length),this[t]|this[t+1]<<8},s.prototype.readUInt16BE=function(t,e){return t>>>=0,e||L(t,2,this.length),this[t]<<8|this[t+1]},s.prototype.readUInt32LE=function(t,e){return t>>>=0,e||L(t,4,this.length),(this[t]|this[t+1]<<8|this[t+2]<<16)+16777216*this[t+3]},s.prototype.readUInt32BE=function(t,e){return t>>>=0,e||L(t,4,this.length),16777216*this[t]+(this[t+1]<<16|this[t+2]<<8|this[t+3])},s.prototype.readIntLE=function(t,e,r){t>>>=0,e>>>=0,r||L(t,e,this.length);for(var n=this[t],i=1,a=0;++a<e&&(i*=256);)n+=this[t+a]*i;return n>=(i*=128)&&(n-=Math.pow(2,8*e)),n},s.prototype.readIntBE=function(t,e,r){t>>>=0,e>>>=0,r||L(t,e,this.length);for(var n=e,i=1,a=this[t+--n];n>0&&(i*=256);)a+=this[t+--n]*i;return a>=(i*=128)&&(a-=Math.pow(2,8*e)),a},s.prototype.readInt8=function(t,e){return t>>>=0,e||L(t,1,this.length),128&this[t]?-1*(255-this[t]+1):this[t]},s.prototype.readInt16LE=function(t,e){t>>>=0,e||L(t,2,this.length);var r=this[t]|this[t+1]<<8;return 32768&r?4294901760|r:r},s.prototype.readInt16BE=function(t,e){t>>>=0,e||L(t,2,this.length);var r=this[t+1]|this[t]<<8;return 32768&r?4294901760|r:r},s.prototype.readInt32LE=function(t,e){return t>>>=0,e||L(t,4,this.length),this[t]|this[t+1]<<8|this[t+2]<<16|this[t+3]<<24},s.prototype.readInt32BE=function(t,e){return t>>>=0,e||L(t,4,this.length),this[t]<<24|this[t+1]<<16|this[t+2]<<8|this[t+3]},s.prototype.readFloatLE=function(t,e){return t>>>=0,e||L(t,4,this.length),i.read(this,t,!0,23,4)},s.prototype.readFloatBE=function(t,e){return t>>>=0,e||L(t,4,this.length),i.read(this,t,!1,23,4)},s.prototype.readDoubleLE=function(t,e){return t>>>=0,e||L(t,8,this.length),i.read(this,t,!0,52,8)},s.prototype.readDoubleBE=function(t,e){return t>>>=0,e||L(t,8,this.length),i.read(this,t,!1,52,8)},s.prototype.writeUIntLE=function(t,e,r,n){(t=+t,e>>>=0,r>>>=0,n)||z(this,t,e,r,Math.pow(2,8*r)-1,0);var i=1,a=0;for(this[e]=255&t;++a<r&&(i*=256);)this[e+a]=t/i&255;return e+r},s.prototype.writeUIntBE=function(t,e,r,n){(t=+t,e>>>=0,r>>>=0,n)||z(this,t,e,r,Math.pow(2,8*r)-1,0);var i=r-1,a=1;for(this[e+i]=255&t;--i>=0&&(a*=256);)this[e+i]=t/a&255;return e+r},s.prototype.writeUInt8=function(t,e,r){return t=+t,e>>>=0,r||z(this,t,e,1,255,0),this[e]=255&t,e+1},s.prototype.writeUInt16LE=function(t,e,r){return t=+t,e>>>=0,r||z(this,t,e,2,65535,0),this[e]=255&t,this[e+1]=t>>>8,e+2},s.prototype.writeUInt16BE=function(t,e,r){return t=+t,e>>>=0,r||z(this,t,e,2,65535,0),this[e]=t>>>8,this[e+1]=255&t,e+2},s.prototype.writeUInt32LE=function(t,e,r){return t=+t,e>>>=0,r||z(this,t,e,4,4294967295,0),this[e+3]=t>>>24,this[e+2]=t>>>16,this[e+1]=t>>>8,this[e]=255&t,e+4},s.prototype.writeUInt32BE=function(t,e,r){return t=+t,e>>>=0,r||z(this,t,e,4,4294967295,0),this[e]=t>>>24,this[e+1]=t>>>16,this[e+2]=t>>>8,this[e+3]=255&t,e+4},s.prototype.writeIntLE=function(t,e,r,n){if(t=+t,e>>>=0,!n){var i=Math.pow(2,8*r-1);z(this,t,e,r,i-1,-i)}var a=0,o=1,s=0;for(this[e]=255&t;++a<r&&(o*=256);)t<0&&0===s&&0!==this[e+a-1]&&(s=1),this[e+a]=(t/o>>0)-s&255;return e+r},s.prototype.writeIntBE=function(t,e,r,n){if(t=+t,e>>>=0,!n){var i=Math.pow(2,8*r-1);z(this,t,e,r,i-1,-i)}var a=r-1,o=1,s=0;for(this[e+a]=255&t;--a>=0&&(o*=256);)t<0&&0===s&&0!==this[e+a+1]&&(s=1),this[e+a]=(t/o>>0)-s&255;return e+r},s.prototype.writeInt8=function(t,e,r){return t=+t,e>>>=0,r||z(this,t,e,1,127,-128),t<0&&(t=255+t+1),this[e]=255&t,e+1},s.prototype.writeInt16LE=function(t,e,r){return t=+t,e>>>=0,r||z(this,t,e,2,32767,-32768),this[e]=255&t,this[e+1]=t>>>8,e+2},s.prototype.writeInt16BE=function(t,e,r){return t=+t,e>>>=0,r||z(this,t,e,2,32767,-32768),this[e]=t>>>8,this[e+1]=255&t,e+2},s.prototype.writeInt32LE=function(t,e,r){return t=+t,e>>>=0,r||z(this,t,e,4,2147483647,-2147483648),this[e]=255&t,this[e+1]=t>>>8,this[e+2]=t>>>16,this[e+3]=t>>>24,e+4},s.prototype.writeInt32BE=function(t,e,r){return t=+t,e>>>=0,r||z(this,t,e,4,2147483647,-2147483648),t<0&&(t=4294967295+t+1),this[e]=t>>>24,this[e+1]=t>>>16,this[e+2]=t>>>8,this[e+3]=255&t,e+4},s.prototype.writeFloatLE=function(t,e,r){return I(this,t,e,!0,r)},s.prototype.writeFloatBE=function(t,e,r){return I(this,t,e,!1,r)},s.prototype.writeDoubleLE=function(t,e,r){return D(this,t,e,!0,r)},s.prototype.writeDoubleBE=function(t,e,r){return D(this,t,e,!1,r)},s.prototype.copy=function(t,e,r,n){if(!s.isBuffer(t))throw new TypeError(\\\"argument should be a Buffer\\\");if(r||(r=0),n||0===n||(n=this.length),e>=t.length&&(e=t.length),e||(e=0),n>0&&n<r&&(n=r),n===r)return 0;if(0===t.length||0===this.length)return 0;if(e<0)throw new RangeError(\\\"targetStart out of bounds\\\");if(r<0||r>=this.length)throw new RangeError(\\\"Index out of range\\\");if(n<0)throw new RangeError(\\\"sourceEnd out of bounds\\\");n>this.length&&(n=this.length),t.length-e<n-r&&(n=t.length-e+r);var i=n-r;if(this===t&&\\\"function\\\"==typeof Uint8Array.prototype.copyWithin)this.copyWithin(e,r,n);else if(this===t&&r<e&&e<n)for(var a=i-1;a>=0;--a)t[a+e]=this[a+r];else Uint8Array.prototype.set.call(t,this.subarray(r,n),e);return i},s.prototype.fill=function(t,e,r,n){if(\\\"string\\\"==typeof t){if(\\\"string\\\"==typeof e?(n=e,e=0,r=this.length):\\\"string\\\"==typeof r&&(n=r,r=this.length),void 0!==n&&\\\"string\\\"!=typeof n)throw new TypeError(\\\"encoding must be a string\\\");if(\\\"string\\\"==typeof n&&!s.isEncoding(n))throw new TypeError(\\\"Unknown encoding: \\\"+n);if(1===t.length){var i=t.charCodeAt(0);(\\\"utf8\\\"===n&&i<128||\\\"latin1\\\"===n)&&(t=i)}}else\\\"number\\\"==typeof t&&(t&=255);if(e<0||this.length<e||this.length<r)throw new RangeError(\\\"Out of range index\\\");if(r<=e)return this;var a;if(e>>>=0,r=void 0===r?this.length:r>>>0,t||(t=0),\\\"number\\\"==typeof t)for(a=e;a<r;++a)this[a]=t;else{var o=s.isBuffer(t)?t:s.from(t,n),l=o.length;if(0===l)throw new TypeError('The value \\\"'+t+'\\\" is invalid for argument \\\"value\\\"');for(a=0;a<r-e;++a)this[a+e]=o[a%l]}return this};var P=/[^+\\\\/0-9A-Za-z-_]/g;function R(t){return t<16?\\\"0\\\"+t.toString(16):t.toString(16)}function F(t,e){var r;e=e||1/0;for(var n=t.length,i=null,a=[],o=0;o<n;++o){if((r=t.charCodeAt(o))>55295&&r<57344){if(!i){if(r>56319){(e-=3)>-1&&a.push(239,191,189);continue}if(o+1===n){(e-=3)>-1&&a.push(239,191,189);continue}i=r;continue}if(r<56320){(e-=3)>-1&&a.push(239,191,189),i=r;continue}r=65536+(i-55296<<10|r-56320)}else i&&(e-=3)>-1&&a.push(239,191,189);if(i=null,r<128){if((e-=1)<0)break;a.push(r)}else if(r<2048){if((e-=2)<0)break;a.push(r>>6|192,63&r|128)}else if(r<65536){if((e-=3)<0)break;a.push(r>>12|224,r>>6&63|128,63&r|128)}else{if(!(r<1114112))throw new Error(\\\"Invalid code point\\\");if((e-=4)<0)break;a.push(r>>18|240,r>>12&63|128,r>>6&63|128,63&r|128)}}return a}function B(t){return n.toByteArray(function(t){if((t=(t=t.split(\\\"=\\\")[0]).trim().replace(P,\\\"\\\")).length<2)return\\\"\\\";for(;t.length%4!=0;)t+=\\\"=\\\";return t}(t))}function N(t,e,r,n){for(var i=0;i<n&&!(i+r>=e.length||i>=t.length);++i)e[i+r]=t[i];return i}function j(t,e){return t instanceof e||null!=t&&null!=t.constructor&&null!=t.constructor.name&&t.constructor.name===e.name}function V(t){return t!=t}},{\\\"base64-js\\\":67,ieee754:407}],99:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./lib/monotone\\\"),i=t(\\\"./lib/triangulation\\\"),a=t(\\\"./lib/delaunay\\\"),o=t(\\\"./lib/filter\\\");function s(t){return[Math.min(t[0],t[1]),Math.max(t[0],t[1])]}function l(t,e){return t[0]-e[0]||t[1]-e[1]}function c(t,e,r){return e in t?t[e]:r}e.exports=function(t,e,r){Array.isArray(e)?(r=r||{},e=e||[]):(r=e||{},e=[]);var u=!!c(r,\\\"delaunay\\\",!0),f=!!c(r,\\\"interior\\\",!0),h=!!c(r,\\\"exterior\\\",!0),p=!!c(r,\\\"infinity\\\",!1);if(!f&&!h||0===t.length)return[];var d=n(t,e);if(u||f!==h||p){for(var g=i(t.length,function(t){return t.map(s).sort(l)}(e)),v=0;v<d.length;++v){var m=d[v];g.addTriangle(m[0],m[1],m[2])}return u&&a(t,g),h?f?p?o(g,0,p):g.cells():o(g,1,p):o(g,-1)}return d}},{\\\"./lib/delaunay\\\":100,\\\"./lib/filter\\\":101,\\\"./lib/monotone\\\":102,\\\"./lib/triangulation\\\":103}],100:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"robust-in-sphere\\\")[4];t(\\\"binary-search-bounds\\\");function i(t,e,r,i,a,o){var s=e.opposite(i,a);if(!(s<0)){if(a<i){var l=i;i=a,a=l,l=o,o=s,s=l}e.isConstraint(i,a)||n(t[i],t[a],t[o],t[s])<0&&r.push(i,a)}}e.exports=function(t,e){for(var r=[],a=t.length,o=e.stars,s=0;s<a;++s)for(var l=o[s],c=1;c<l.length;c+=2){var u=l[c];if(!(u<s)&&!e.isConstraint(s,u)){for(var f=l[c-1],h=-1,p=1;p<l.length;p+=2)if(l[p-1]===u){h=l[p];break}h<0||n(t[s],t[u],t[f],t[h])<0&&r.push(s,u)}}for(;r.length>0;){for(var u=r.pop(),s=r.pop(),f=-1,h=-1,l=o[s],d=1;d<l.length;d+=2){var g=l[d-1],v=l[d];g===u?h=v:v===u&&(f=g)}f<0||h<0||(n(t[s],t[u],t[f],t[h])>=0||(e.flip(s,u),i(t,e,r,f,s,h),i(t,e,r,s,h,f),i(t,e,r,h,u,f),i(t,e,r,u,f,h)))}}},{\\\"binary-search-bounds\\\":104,\\\"robust-in-sphere\\\":495}],101:[function(t,e,r){\\\"use strict\\\";var n,i=t(\\\"binary-search-bounds\\\");function a(t,e,r,n,i,a,o){this.cells=t,this.neighbor=e,this.flags=n,this.constraint=r,this.active=i,this.next=a,this.boundary=o}function o(t,e){return t[0]-e[0]||t[1]-e[1]||t[2]-e[2]}e.exports=function(t,e,r){var n=function(t,e){for(var r=t.cells(),n=r.length,i=0;i<n;++i){var s=r[i],l=s[0],c=s[1],u=s[2];c<u?c<l&&(s[0]=c,s[1]=u,s[2]=l):u<l&&(s[0]=u,s[1]=l,s[2]=c)}r.sort(o);for(var f=new Array(n),i=0;i<f.length;++i)f[i]=0;var h=[],p=[],d=new Array(3*n),g=new Array(3*n),v=null;e&&(v=[]);for(var m=new a(r,d,g,f,h,p,v),i=0;i<n;++i)for(var s=r[i],y=0;y<3;++y){var l=s[y],c=s[(y+1)%3],x=d[3*i+y]=m.locate(c,l,t.opposite(c,l)),b=g[3*i+y]=t.isConstraint(l,c);x<0&&(b?p.push(i):(h.push(i),f[i]=1),e&&v.push([c,l,-1]))}return m}(t,r);if(0===e)return r?n.cells.concat(n.boundary):n.cells;var i=1,s=n.active,l=n.next,c=n.flags,u=n.cells,f=n.constraint,h=n.neighbor;for(;s.length>0||l.length>0;){for(;s.length>0;){var p=s.pop();if(c[p]!==-i){c[p]=i;u[p];for(var d=0;d<3;++d){var g=h[3*p+d];g>=0&&0===c[g]&&(f[3*p+d]?l.push(g):(s.push(g),c[g]=i))}}}var v=l;l=s,s=v,l.length=0,i=-i}var m=function(t,e,r){for(var n=0,i=0;i<t.length;++i)e[i]===r&&(t[n++]=t[i]);return t.length=n,t}(u,c,e);if(r)return m.concat(n.boundary);return m},a.prototype.locate=(n=[0,0,0],function(t,e,r){var a=t,s=e,l=r;return e<r?e<t&&(a=e,s=r,l=t):r<t&&(a=r,s=t,l=e),a<0?-1:(n[0]=a,n[1]=s,n[2]=l,i.eq(this.cells,n,o))})},{\\\"binary-search-bounds\\\":104}],102:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"binary-search-bounds\\\"),i=t(\\\"robust-orientation\\\")[3],a=0,o=1,s=2;function l(t,e,r,n,i){this.a=t,this.b=e,this.idx=r,this.lowerIds=n,this.upperIds=i}function c(t,e,r,n){this.a=t,this.b=e,this.type=r,this.idx=n}function u(t,e){var r=t.a[0]-e.a[0]||t.a[1]-e.a[1]||t.type-e.type;return r||(t.type!==a&&(r=i(t.a,t.b,e.b))?r:t.idx-e.idx)}function f(t,e){return i(t.a,t.b,e)}function h(t,e,r,a,o){for(var s=n.lt(e,a,f),l=n.gt(e,a,f),c=s;c<l;++c){for(var u=e[c],h=u.lowerIds,p=h.length;p>1&&i(r[h[p-2]],r[h[p-1]],a)>0;)t.push([h[p-1],h[p-2],o]),p-=1;h.length=p,h.push(o);var d=u.upperIds;for(p=d.length;p>1&&i(r[d[p-2]],r[d[p-1]],a)<0;)t.push([d[p-2],d[p-1],o]),p-=1;d.length=p,d.push(o)}}function p(t,e){var r;return(r=t.a[0]<e.a[0]?i(t.a,t.b,e.a):i(e.b,e.a,t.a))?r:(r=e.b[0]<t.b[0]?i(t.a,t.b,e.b):i(e.b,e.a,t.b))||t.idx-e.idx}function d(t,e,r){var i=n.le(t,r,p),a=t[i],o=a.upperIds,s=o[o.length-1];a.upperIds=[s],t.splice(i+1,0,new l(r.a,r.b,r.idx,[s],o))}function g(t,e,r){var i=r.a;r.a=r.b,r.b=i;var a=n.eq(t,r,p),o=t[a];t[a-1].upperIds=o.upperIds,t.splice(a,1)}e.exports=function(t,e){for(var r=t.length,n=e.length,i=[],f=0;f<r;++f)i.push(new c(t[f],null,a,f));for(var f=0;f<n;++f){var p=e[f],v=t[p[0]],m=t[p[1]];v[0]<m[0]?i.push(new c(v,m,s,f),new c(m,v,o,f)):v[0]>m[0]&&i.push(new c(m,v,s,f),new c(v,m,o,f))}i.sort(u);for(var y=i[0].a[0]-(1+Math.abs(i[0].a[0]))*Math.pow(2,-52),x=[new l([y,1],[y,0],-1,[],[],[],[])],b=[],f=0,_=i.length;f<_;++f){var w=i[f],k=w.type;k===a?h(b,x,t,w.a,w.idx):k===s?d(x,t,w):g(x,t,w)}return b}},{\\\"binary-search-bounds\\\":104,\\\"robust-orientation\\\":497}],103:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"binary-search-bounds\\\");function i(t,e){this.stars=t,this.edges=e}e.exports=function(t,e){for(var r=new Array(t),n=0;n<t;++n)r[n]=[];return new i(r,e)};var a=i.prototype;function o(t,e,r){for(var n=1,i=t.length;n<i;n+=2)if(t[n-1]===e&&t[n]===r)return t[n-1]=t[i-2],t[n]=t[i-1],void(t.length=i-2)}a.isConstraint=function(){var t=[0,0];function e(t,e){return t[0]-e[0]||t[1]-e[1]}return function(r,i){return t[0]=Math.min(r,i),t[1]=Math.max(r,i),n.eq(this.edges,t,e)>=0}}(),a.removeTriangle=function(t,e,r){var n=this.stars;o(n[t],e,r),o(n[e],r,t),o(n[r],t,e)},a.addTriangle=function(t,e,r){var n=this.stars;n[t].push(e,r),n[e].push(r,t),n[r].push(t,e)},a.opposite=function(t,e){for(var r=this.stars[e],n=1,i=r.length;n<i;n+=2)if(r[n]===t)return r[n-1];return-1},a.flip=function(t,e){var r=this.opposite(t,e),n=this.opposite(e,t);this.removeTriangle(t,e,r),this.removeTriangle(e,t,n),this.addTriangle(t,n,r),this.addTriangle(e,r,n)},a.edges=function(){for(var t=this.stars,e=[],r=0,n=t.length;r<n;++r)for(var i=t[r],a=0,o=i.length;a<o;a+=2)e.push([i[a],i[a+1]]);return e},a.cells=function(){for(var t=this.stars,e=[],r=0,n=t.length;r<n;++r)for(var i=t[r],a=0,o=i.length;a<o;a+=2){var s=i[a],l=i[a+1];r<Math.min(s,l)&&e.push([r,s,l])}return e}},{\\\"binary-search-bounds\\\":104}],104:[function(t,e,r){\\\"use strict\\\";function n(t,e,r,n,i){var a=[\\\"function \\\",t,\\\"(a,l,h,\\\",n.join(\\\",\\\"),\\\"){\\\",i?\\\"\\\":\\\"var i=\\\",r?\\\"l-1\\\":\\\"h+1\\\",\\\";while(l<=h){var m=(l+h)>>>1,x=a[m]\\\"];return i?e.indexOf(\\\"c\\\")<0?a.push(\\\";if(x===y){return m}else if(x<=y){\\\"):a.push(\\\";var p=c(x,y);if(p===0){return m}else if(p<=0){\\\"):a.push(\\\";if(\\\",e,\\\"){i=m;\\\"),r?a.push(\\\"l=m+1}else{h=m-1}\\\"):a.push(\\\"h=m-1}else{l=m+1}\\\"),a.push(\\\"}\\\"),i?a.push(\\\"return -1};\\\"):a.push(\\\"return i};\\\"),a.join(\\\"\\\")}function i(t,e,r,i){return new Function([n(\\\"A\\\",\\\"x\\\"+t+\\\"y\\\",e,[\\\"y\\\"],i),n(\\\"P\\\",\\\"c(x,y)\\\"+t+\\\"0\\\",e,[\\\"y\\\",\\\"c\\\"],i),\\\"function dispatchBsearch\\\",r,\\\"(a,y,c,l,h){if(typeof(c)==='function'){return P(a,(l===void 0)?0:l|0,(h===void 0)?a.length-1:h|0,y,c)}else{return A(a,(c===void 0)?0:c|0,(l===void 0)?a.length-1:l|0,y)}}return dispatchBsearch\\\",r].join(\\\"\\\"))()}e.exports={ge:i(\\\">=\\\",!1,\\\"GE\\\"),gt:i(\\\">\\\",!1,\\\"GT\\\"),lt:i(\\\"<\\\",!0,\\\"LT\\\"),le:i(\\\"<=\\\",!0,\\\"LE\\\"),eq:i(\\\"-\\\",!0,\\\"EQ\\\",!0)}},{}],105:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){for(var e=1,r=1;r<t.length;++r)for(var n=0;n<r;++n)if(t[r]<t[n])e=-e;else if(t[n]===t[r])return 0;return e}},{}],106:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"dup\\\"),i=t(\\\"robust-linear-solve\\\");function a(t,e){for(var r=0,n=t.length,i=0;i<n;++i)r+=t[i]*e[i];return r}function o(t){var e=t.length;if(0===e)return[];t[0].length;var r=n([t.length+1,t.length+1],1),o=n([t.length+1],1);r[e][e]=0;for(var s=0;s<e;++s){for(var l=0;l<=s;++l)r[l][s]=r[s][l]=2*a(t[s],t[l]);o[s]=a(t[s],t[s])}var c=i(r,o),u=0,f=c[e+1];for(s=0;s<f.length;++s)u+=f[s];var h=new Array(e);for(s=0;s<e;++s){f=c[s];var p=0;for(l=0;l<f.length;++l)p+=f[l];h[s]=p/u}return h}function s(t){if(0===t.length)return[];for(var e=t[0].length,r=n([e]),i=o(t),a=0;a<t.length;++a)for(var s=0;s<e;++s)r[s]+=t[a][s]*i[a];return r}s.barycenetric=o,e.exports=s},{dup:164,\\\"robust-linear-solve\\\":496}],107:[function(t,e,r){e.exports=function(t){for(var e=n(t),r=0,i=0;i<t.length;++i)for(var a=t[i],o=0;o<e.length;++o)r+=Math.pow(a[o]-e[o],2);return Math.sqrt(r/t.length)};var n=t(\\\"circumcenter\\\")},{circumcenter:106}],108:[function(t,e,r){e.exports=function(t,e,r){return e<r?t<e?e:t>r?r:t:t<r?r:t>e?e:t}},{}],109:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){var n;if(r){n=e;for(var i=new Array(e.length),a=0;a<e.length;++a){var o=e[a];i[a]=[o[0],o[1],r[a]]}e=i}var s=function(t,e,r){var n=d(t,[],p(t));return m(e,n,r),!!n}(t,e,!!r);for(;y(t,e,!!r);)s=!0;if(r&&s){n.length=0,r.length=0;for(var a=0;a<e.length;++a){var o=e[a];n.push([o[0],o[1]]),r.push(o[2])}}return s};var n=t(\\\"union-find\\\"),i=t(\\\"box-intersect\\\"),a=t(\\\"robust-segment-intersect\\\"),o=t(\\\"big-rat\\\"),s=t(\\\"big-rat/cmp\\\"),l=t(\\\"big-rat/to-float\\\"),c=t(\\\"rat-vec\\\"),u=t(\\\"nextafter\\\"),f=t(\\\"./lib/rat-seg-intersect\\\");function h(t){var e=l(t);return[u(e,-1/0),u(e,1/0)]}function p(t){for(var e=new Array(t.length),r=0;r<t.length;++r){var n=t[r];e[r]=[u(n[0],-1/0),u(n[1],-1/0),u(n[0],1/0),u(n[1],1/0)]}return e}function d(t,e,r){for(var a=e.length,o=new n(a),s=[],l=0;l<e.length;++l){var c=e[l],f=h(c[0]),p=h(c[1]);s.push([u(f[0],-1/0),u(p[0],-1/0),u(f[1],1/0),u(p[1],1/0)])}i(s,function(t,e){o.link(t,e)});var d=!0,g=new Array(a);for(l=0;l<a;++l){(m=o.find(l))!==l&&(d=!1,t[m]=[Math.min(t[l][0],t[m][0]),Math.min(t[l][1],t[m][1])])}if(d)return null;var v=0;for(l=0;l<a;++l){var m;(m=o.find(l))===l?(g[l]=v,t[v++]=t[l]):g[l]=-1}t.length=v;for(l=0;l<a;++l)g[l]<0&&(g[l]=g[o.find(l)]);return g}function g(t,e){return t[0]-e[0]||t[1]-e[1]}function v(t,e){var r=t[0]-e[0]||t[1]-e[1];return r||(t[2]<e[2]?-1:t[2]>e[2]?1:0)}function m(t,e,r){if(0!==t.length){if(e)for(var n=0;n<t.length;++n){var i=e[(o=t[n])[0]],a=e[o[1]];o[0]=Math.min(i,a),o[1]=Math.max(i,a)}else for(n=0;n<t.length;++n){var o;i=(o=t[n])[0],a=o[1];o[0]=Math.min(i,a),o[1]=Math.max(i,a)}r?t.sort(v):t.sort(g);var s=1;for(n=1;n<t.length;++n){var l=t[n-1],c=t[n];(c[0]!==l[0]||c[1]!==l[1]||r&&c[2]!==l[2])&&(t[s++]=c)}t.length=s}}function y(t,e,r){var n=function(t,e){for(var r=new Array(e.length),n=0;n<e.length;++n){var i=e[n],a=t[i[0]],o=t[i[1]];r[n]=[u(Math.min(a[0],o[0]),-1/0),u(Math.min(a[1],o[1]),-1/0),u(Math.max(a[0],o[0]),1/0),u(Math.max(a[1],o[1]),1/0)]}return r}(t,e),h=function(t,e,r){var n=[];return i(r,function(r,i){var o=e[r],s=e[i];if(o[0]!==s[0]&&o[0]!==s[1]&&o[1]!==s[0]&&o[1]!==s[1]){var l=t[o[0]],c=t[o[1]],u=t[s[0]],f=t[s[1]];a(l,c,u,f)&&n.push([r,i])}}),n}(t,e,n),g=p(t),v=function(t,e,r,n){var o=[];return i(r,n,function(r,n){var i=e[r];if(i[0]!==n&&i[1]!==n){var s=t[n],l=t[i[0]],c=t[i[1]];a(l,c,s,s)&&o.push([r,n])}}),o}(t,e,n,g),y=d(t,function(t,e,r,n,i){var a,u,h=t.map(function(t){return[o(t[0]),o(t[1])]});for(a=0;a<r.length;++a){var p=r[a];u=p[0];var d=p[1],g=e[u],v=e[d],m=f(c(t[g[0]]),c(t[g[1]]),c(t[v[0]]),c(t[v[1]]));if(m){var y=t.length;t.push([l(m[0]),l(m[1])]),h.push(m),n.push([u,y],[d,y])}}for(n.sort(function(t,e){if(t[0]!==e[0])return t[0]-e[0];var r=h[t[1]],n=h[e[1]];return s(r[0],n[0])||s(r[1],n[1])}),a=n.length-1;a>=0;--a){var x=e[u=(S=n[a])[0]],b=x[0],_=x[1],w=t[b],k=t[_];if((w[0]-k[0]||w[1]-k[1])<0){var T=b;b=_,_=T}x[0]=b;var A,M=x[1]=S[1];for(i&&(A=x[2]);a>0&&n[a-1][0]===u;){var S,E=(S=n[--a])[1];i?e.push([M,E,A]):e.push([M,E]),M=E}i?e.push([M,_,A]):e.push([M,_])}return h}(t,e,h,v,r));return m(e,y,r),!!y||(h.length>0||v.length>0)}},{\\\"./lib/rat-seg-intersect\\\":110,\\\"big-rat\\\":71,\\\"big-rat/cmp\\\":69,\\\"big-rat/to-float\\\":83,\\\"box-intersect\\\":89,nextafter:446,\\\"rat-vec\\\":481,\\\"robust-segment-intersect\\\":500,\\\"union-find\\\":533}],110:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,n){var a=s(e,t),f=s(n,r),h=u(a,f);if(0===o(h))return null;var p=s(t,r),d=u(f,p),g=i(d,h),v=c(a,g);return l(t,v)};var n=t(\\\"big-rat/mul\\\"),i=t(\\\"big-rat/div\\\"),a=t(\\\"big-rat/sub\\\"),o=t(\\\"big-rat/sign\\\"),s=t(\\\"rat-vec/sub\\\"),l=t(\\\"rat-vec/add\\\"),c=t(\\\"rat-vec/muls\\\");function u(t,e){return a(n(t[0],e[1]),n(t[1],e[0]))}},{\\\"big-rat/div\\\":70,\\\"big-rat/mul\\\":80,\\\"big-rat/sign\\\":81,\\\"big-rat/sub\\\":82,\\\"rat-vec/add\\\":480,\\\"rat-vec/muls\\\":482,\\\"rat-vec/sub\\\":483}],111:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"clamp\\\");function i(t,e){null==e&&(e=!0);var r=t[0],i=t[1],a=t[2],o=t[3];return null==o&&(o=e?1:255),e&&(r*=255,i*=255,a*=255,o*=255),16777216*(r=255&n(r,0,255))+((i=255&n(i,0,255))<<16)+((a=255&n(a,0,255))<<8)+(o=255&n(o,0,255))}e.exports=i,e.exports.to=i,e.exports.from=function(t,e){var r=(t=+t)>>>24,n=(16711680&t)>>>16,i=(65280&t)>>>8,a=255&t;return!1===e?[r,n,i,a]:[r/255,n/255,i/255,a/255]}},{clamp:108}],112:[function(t,e,r){\\\"use strict\\\";e.exports={aliceblue:[240,248,255],antiquewhite:[250,235,215],aqua:[0,255,255],aquamarine:[127,255,212],azure:[240,255,255],beige:[245,245,220],bisque:[255,228,196],black:[0,0,0],blanchedalmond:[255,235,205],blue:[0,0,255],blueviolet:[138,43,226],brown:[165,42,42],burlywood:[222,184,135],cadetblue:[95,158,160],chartreuse:[127,255,0],chocolate:[210,105,30],coral:[255,127,80],cornflowerblue:[100,149,237],cornsilk:[255,248,220],crimson:[220,20,60],cyan:[0,255,255],darkblue:[0,0,139],darkcyan:[0,139,139],darkgoldenrod:[184,134,11],darkgray:[169,169,169],darkgreen:[0,100,0],darkgrey:[169,169,169],darkkhaki:[189,183,107],darkmagenta:[139,0,139],darkolivegreen:[85,107,47],darkorange:[255,140,0],darkorchid:[153,50,204],darkred:[139,0,0],darksalmon:[233,150,122],darkseagreen:[143,188,143],darkslateblue:[72,61,139],darkslategray:[47,79,79],darkslategrey:[47,79,79],darkturquoise:[0,206,209],darkviolet:[148,0,211],deeppink:[255,20,147],deepskyblue:[0,191,255],dimgray:[105,105,105],dimgrey:[105,105,105],dodgerblue:[30,144,255],firebrick:[178,34,34],floralwhite:[255,250,240],forestgreen:[34,139,34],fuchsia:[255,0,255],gainsboro:[220,220,220],ghostwhite:[248,248,255],gold:[255,215,0],goldenrod:[218,165,32],gray:[128,128,128],green:[0,128,0],greenyellow:[173,255,47],grey:[128,128,128],honeydew:[240,255,240],hotpink:[255,105,180],indianred:[205,92,92],indigo:[75,0,130],ivory:[255,255,240],khaki:[240,230,140],lavender:[230,230,250],lavenderblush:[255,240,245],lawngreen:[124,252,0],lemonchiffon:[255,250,205],lightblue:[173,216,230],lightcoral:[240,128,128],lightcyan:[224,255,255],lightgoldenrodyellow:[250,250,210],lightgray:[211,211,211],lightgreen:[144,238,144],lightgrey:[211,211,211],lightpink:[255,182,193],lightsalmon:[255,160,122],lightseagreen:[32,178,170],lightskyblue:[135,206,250],lightslategray:[119,136,153],lightslategrey:[119,136,153],lightsteelblue:[176,196,222],lightyellow:[255,255,224],lime:[0,255,0],limegreen:[50,205,50],linen:[250,240,230],magenta:[255,0,255],maroon:[128,0,0],mediumaquamarine:[102,205,170],mediumblue:[0,0,205],mediumorchid:[186,85,211],mediumpurple:[147,112,219],mediumseagreen:[60,179,113],mediumslateblue:[123,104,238],mediumspringgreen:[0,250,154],mediumturquoise:[72,209,204],mediumvioletred:[199,21,133],midnightblue:[25,25,112],mintcream:[245,255,250],mistyrose:[255,228,225],moccasin:[255,228,181],navajowhite:[255,222,173],navy:[0,0,128],oldlace:[253,245,230],olive:[128,128,0],olivedrab:[107,142,35],orange:[255,165,0],orangered:[255,69,0],orchid:[218,112,214],palegoldenrod:[238,232,170],palegreen:[152,251,152],paleturquoise:[175,238,238],palevioletred:[219,112,147],papayawhip:[255,239,213],peachpuff:[255,218,185],peru:[205,133,63],pink:[255,192,203],plum:[221,160,221],powderblue:[176,224,230],purple:[128,0,128],rebeccapurple:[102,51,153],red:[255,0,0],rosybrown:[188,143,143],royalblue:[65,105,225],saddlebrown:[139,69,19],salmon:[250,128,114],sandybrown:[244,164,96],seagreen:[46,139,87],seashell:[255,245,238],sienna:[160,82,45],silver:[192,192,192],skyblue:[135,206,235],slateblue:[106,90,205],slategray:[112,128,144],slategrey:[112,128,144],snow:[255,250,250],springgreen:[0,255,127],steelblue:[70,130,180],tan:[210,180,140],teal:[0,128,128],thistle:[216,191,216],tomato:[255,99,71],turquoise:[64,224,208],violet:[238,130,238],wheat:[245,222,179],white:[255,255,255],whitesmoke:[245,245,245],yellow:[255,255,0],yellowgreen:[154,205,50]}},{}],113:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"color-rgba\\\"),i=t(\\\"clamp\\\"),a=t(\\\"dtype\\\");e.exports=function(t,e){\\\"float\\\"!==e&&e||(e=\\\"array\\\"),\\\"uint\\\"===e&&(e=\\\"uint8\\\"),\\\"uint_clamped\\\"===e&&(e=\\\"uint8_clamped\\\");var r=new(a(e))(4),o=\\\"uint8\\\"!==e&&\\\"uint8_clamped\\\"!==e;return t.length&&\\\"string\\\"!=typeof t||((t=n(t))[0]/=255,t[1]/=255,t[2]/=255),function(t){return t instanceof Uint8Array||t instanceof Uint8ClampedArray||!!(Array.isArray(t)&&(t[0]>1||0===t[0])&&(t[1]>1||0===t[1])&&(t[2]>1||0===t[2])&&(!t[3]||t[3]>1))}(t)?(r[0]=t[0],r[1]=t[1],r[2]=t[2],r[3]=null!=t[3]?t[3]:255,o&&(r[0]/=255,r[1]/=255,r[2]/=255,r[3]/=255),r):(o?(r[0]=t[0],r[1]=t[1],r[2]=t[2],r[3]=null!=t[3]?t[3]:1):(r[0]=i(Math.floor(255*t[0]),0,255),r[1]=i(Math.floor(255*t[1]),0,255),r[2]=i(Math.floor(255*t[2]),0,255),r[3]=null==t[3]?255:i(Math.floor(255*t[3]),0,255)),r)}},{clamp:108,\\\"color-rgba\\\":115,dtype:163}],114:[function(t,e,r){(function(r){\\\"use strict\\\";var n=t(\\\"color-name\\\"),i=t(\\\"is-plain-obj\\\"),a=t(\\\"defined\\\");e.exports=function(t){var e,s,l=[],c=1;if(\\\"string\\\"==typeof t)if(n[t])l=n[t].slice(),s=\\\"rgb\\\";else if(\\\"transparent\\\"===t)c=0,s=\\\"rgb\\\",l=[0,0,0];else if(/^#[A-Fa-f0-9]+$/.test(t)){var u=t.slice(1),f=u.length,h=f<=4;c=1,h?(l=[parseInt(u[0]+u[0],16),parseInt(u[1]+u[1],16),parseInt(u[2]+u[2],16)],4===f&&(c=parseInt(u[3]+u[3],16)/255)):(l=[parseInt(u[0]+u[1],16),parseInt(u[2]+u[3],16),parseInt(u[4]+u[5],16)],8===f&&(c=parseInt(u[6]+u[7],16)/255)),l[0]||(l[0]=0),l[1]||(l[1]=0),l[2]||(l[2]=0),s=\\\"rgb\\\"}else if(e=/^((?:rgb|hs[lvb]|hwb|cmyk?|xy[zy]|gray|lab|lchu?v?|[ly]uv|lms)a?)\\\\s*\\\\(([^\\\\)]*)\\\\)/.exec(t)){var p=e[1],u=p.replace(/a$/,\\\"\\\");s=u;var f=\\\"cmyk\\\"===u?4:\\\"gray\\\"===u?1:3;l=e[2].trim().split(/\\\\s*,\\\\s*/).map(function(t,e){if(/%$/.test(t))return e===f?parseFloat(t)/100:\\\"rgb\\\"===u?255*parseFloat(t)/100:parseFloat(t);if(\\\"h\\\"===u[e]){if(/deg$/.test(t))return parseFloat(t);if(void 0!==o[t])return o[t]}return parseFloat(t)}),p===u&&l.push(1),c=void 0===l[f]?1:l[f],l=l.slice(0,f)}else t.length>10&&/[0-9](?:\\\\s|\\\\/)/.test(t)&&(l=t.match(/([0-9]+)/g).map(function(t){return parseFloat(t)}),s=t.match(/([a-z])/gi).join(\\\"\\\").toLowerCase());else if(isNaN(t))if(i(t)){var d=a(t.r,t.red,t.R,null);null!==d?(s=\\\"rgb\\\",l=[d,a(t.g,t.green,t.G),a(t.b,t.blue,t.B)]):(s=\\\"hsl\\\",l=[a(t.h,t.hue,t.H),a(t.s,t.saturation,t.S),a(t.l,t.lightness,t.L,t.b,t.brightness)]),c=a(t.a,t.alpha,t.opacity,1),null!=t.opacity&&(c/=100)}else(Array.isArray(t)||r.ArrayBuffer&&ArrayBuffer.isView&&ArrayBuffer.isView(t))&&(l=[t[0],t[1],t[2]],s=\\\"rgb\\\",c=4===t.length?t[3]:1);else s=\\\"rgb\\\",l=[t>>>16,(65280&t)>>>8,255&t];return{space:s,values:l,alpha:c}};var o={red:0,orange:60,yellow:120,green:180,blue:240,purple:300}}).call(this,\\\"undefined\\\"!=typeof global?global:\\\"undefined\\\"!=typeof self?self:\\\"undefined\\\"!=typeof window?window:{})},{\\\"color-name\\\":112,defined:158,\\\"is-plain-obj\\\":417}],115:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"color-parse\\\"),i=t(\\\"color-space/hsl\\\"),a=t(\\\"clamp\\\");e.exports=function(t){var e,r=n(t);return r.space?((e=Array(3))[0]=a(r.values[0],0,255),e[1]=a(r.values[1],0,255),e[2]=a(r.values[2],0,255),\\\"h\\\"===r.space[0]&&(e=i.rgb(e)),e.push(a(r.alpha,0,1)),e):[]}},{clamp:108,\\\"color-parse\\\":114,\\\"color-space/hsl\\\":116}],116:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./rgb\\\");e.exports={name:\\\"hsl\\\",min:[0,0,0],max:[360,100,100],channel:[\\\"hue\\\",\\\"saturation\\\",\\\"lightness\\\"],alias:[\\\"HSL\\\"],rgb:function(t){var e,r,n,i,a,o=t[0]/360,s=t[1]/100,l=t[2]/100;if(0===s)return[a=255*l,a,a];e=2*l-(r=l<.5?l*(1+s):l+s-l*s),i=[0,0,0];for(var c=0;c<3;c++)(n=o+1/3*-(c-1))<0?n++:n>1&&n--,a=6*n<1?e+6*(r-e)*n:2*n<1?r:3*n<2?e+(r-e)*(2/3-n)*6:e,i[c]=255*a;return i}},n.hsl=function(t){var e,r,n=t[0]/255,i=t[1]/255,a=t[2]/255,o=Math.min(n,i,a),s=Math.max(n,i,a),l=s-o;return s===o?e=0:n===s?e=(i-a)/l:i===s?e=2+(a-n)/l:a===s&&(e=4+(n-i)/l),(e=Math.min(60*e,360))<0&&(e+=360),r=(o+s)/2,[e,100*(s===o?0:r<=.5?l/(s+o):l/(2-s-o)),100*r]}},{\\\"./rgb\\\":117}],117:[function(t,e,r){\\\"use strict\\\";e.exports={name:\\\"rgb\\\",min:[0,0,0],max:[255,255,255],channel:[\\\"red\\\",\\\"green\\\",\\\"blue\\\"],alias:[\\\"RGB\\\"]}},{}],118:[function(t,e,r){e.exports={jet:[{index:0,rgb:[0,0,131]},{index:.125,rgb:[0,60,170]},{index:.375,rgb:[5,255,255]},{index:.625,rgb:[255,255,0]},{index:.875,rgb:[250,0,0]},{index:1,rgb:[128,0,0]}],hsv:[{index:0,rgb:[255,0,0]},{index:.169,rgb:[253,255,2]},{index:.173,rgb:[247,255,2]},{index:.337,rgb:[0,252,4]},{index:.341,rgb:[0,252,10]},{index:.506,rgb:[1,249,255]},{index:.671,rgb:[2,0,253]},{index:.675,rgb:[8,0,253]},{index:.839,rgb:[255,0,251]},{index:.843,rgb:[255,0,245]},{index:1,rgb:[255,0,6]}],hot:[{index:0,rgb:[0,0,0]},{index:.3,rgb:[230,0,0]},{index:.6,rgb:[255,210,0]},{index:1,rgb:[255,255,255]}],cool:[{index:0,rgb:[0,255,255]},{index:1,rgb:[255,0,255]}],spring:[{index:0,rgb:[255,0,255]},{index:1,rgb:[255,255,0]}],summer:[{index:0,rgb:[0,128,102]},{index:1,rgb:[255,255,102]}],autumn:[{index:0,rgb:[255,0,0]},{index:1,rgb:[255,255,0]}],winter:[{index:0,rgb:[0,0,255]},{index:1,rgb:[0,255,128]}],bone:[{index:0,rgb:[0,0,0]},{index:.376,rgb:[84,84,116]},{index:.753,rgb:[169,200,200]},{index:1,rgb:[255,255,255]}],copper:[{index:0,rgb:[0,0,0]},{index:.804,rgb:[255,160,102]},{index:1,rgb:[255,199,127]}],greys:[{index:0,rgb:[0,0,0]},{index:1,rgb:[255,255,255]}],yignbu:[{index:0,rgb:[8,29,88]},{index:.125,rgb:[37,52,148]},{index:.25,rgb:[34,94,168]},{index:.375,rgb:[29,145,192]},{index:.5,rgb:[65,182,196]},{index:.625,rgb:[127,205,187]},{index:.75,rgb:[199,233,180]},{index:.875,rgb:[237,248,217]},{index:1,rgb:[255,255,217]}],greens:[{index:0,rgb:[0,68,27]},{index:.125,rgb:[0,109,44]},{index:.25,rgb:[35,139,69]},{index:.375,rgb:[65,171,93]},{index:.5,rgb:[116,196,118]},{index:.625,rgb:[161,217,155]},{index:.75,rgb:[199,233,192]},{index:.875,rgb:[229,245,224]},{index:1,rgb:[247,252,245]}],yiorrd:[{index:0,rgb:[128,0,38]},{index:.125,rgb:[189,0,38]},{index:.25,rgb:[227,26,28]},{index:.375,rgb:[252,78,42]},{index:.5,rgb:[253,141,60]},{index:.625,rgb:[254,178,76]},{index:.75,rgb:[254,217,118]},{index:.875,rgb:[255,237,160]},{index:1,rgb:[255,255,204]}],bluered:[{index:0,rgb:[0,0,255]},{index:1,rgb:[255,0,0]}],rdbu:[{index:0,rgb:[5,10,172]},{index:.35,rgb:[106,137,247]},{index:.5,rgb:[190,190,190]},{index:.6,rgb:[220,170,132]},{index:.7,rgb:[230,145,90]},{index:1,rgb:[178,10,28]}],picnic:[{index:0,rgb:[0,0,255]},{index:.1,rgb:[51,153,255]},{index:.2,rgb:[102,204,255]},{index:.3,rgb:[153,204,255]},{index:.4,rgb:[204,204,255]},{index:.5,rgb:[255,255,255]},{index:.6,rgb:[255,204,255]},{index:.7,rgb:[255,153,255]},{index:.8,rgb:[255,102,204]},{index:.9,rgb:[255,102,102]},{index:1,rgb:[255,0,0]}],rainbow:[{index:0,rgb:[150,0,90]},{index:.125,rgb:[0,0,200]},{index:.25,rgb:[0,25,255]},{index:.375,rgb:[0,152,255]},{index:.5,rgb:[44,255,150]},{index:.625,rgb:[151,255,0]},{index:.75,rgb:[255,234,0]},{index:.875,rgb:[255,111,0]},{index:1,rgb:[255,0,0]}],portland:[{index:0,rgb:[12,51,131]},{index:.25,rgb:[10,136,186]},{index:.5,rgb:[242,211,56]},{index:.75,rgb:[242,143,56]},{index:1,rgb:[217,30,30]}],blackbody:[{index:0,rgb:[0,0,0]},{index:.2,rgb:[230,0,0]},{index:.4,rgb:[230,210,0]},{index:.7,rgb:[255,255,255]},{index:1,rgb:[160,200,255]}],earth:[{index:0,rgb:[0,0,130]},{index:.1,rgb:[0,180,180]},{index:.2,rgb:[40,210,40]},{index:.4,rgb:[230,230,50]},{index:.6,rgb:[120,70,20]},{index:1,rgb:[255,255,255]}],electric:[{index:0,rgb:[0,0,0]},{index:.15,rgb:[30,0,100]},{index:.4,rgb:[120,0,100]},{index:.6,rgb:[160,90,0]},{index:.8,rgb:[230,200,0]},{index:1,rgb:[255,250,220]}],alpha:[{index:0,rgb:[255,255,255,0]},{index:1,rgb:[255,255,255,1]}],viridis:[{index:0,rgb:[68,1,84]},{index:.13,rgb:[71,44,122]},{index:.25,rgb:[59,81,139]},{index:.38,rgb:[44,113,142]},{index:.5,rgb:[33,144,141]},{index:.63,rgb:[39,173,129]},{index:.75,rgb:[92,200,99]},{index:.88,rgb:[170,220,50]},{index:1,rgb:[253,231,37]}],inferno:[{index:0,rgb:[0,0,4]},{index:.13,rgb:[31,12,72]},{index:.25,rgb:[85,15,109]},{index:.38,rgb:[136,34,106]},{index:.5,rgb:[186,54,85]},{index:.63,rgb:[227,89,51]},{index:.75,rgb:[249,140,10]},{index:.88,rgb:[249,201,50]},{index:1,rgb:[252,255,164]}],magma:[{index:0,rgb:[0,0,4]},{index:.13,rgb:[28,16,68]},{index:.25,rgb:[79,18,123]},{index:.38,rgb:[129,37,129]},{index:.5,rgb:[181,54,122]},{index:.63,rgb:[229,80,100]},{index:.75,rgb:[251,135,97]},{index:.88,rgb:[254,194,135]},{index:1,rgb:[252,253,191]}],plasma:[{index:0,rgb:[13,8,135]},{index:.13,rgb:[75,3,161]},{index:.25,rgb:[125,3,168]},{index:.38,rgb:[168,34,150]},{index:.5,rgb:[203,70,121]},{index:.63,rgb:[229,107,93]},{index:.75,rgb:[248,148,65]},{index:.88,rgb:[253,195,40]},{index:1,rgb:[240,249,33]}],warm:[{index:0,rgb:[125,0,179]},{index:.13,rgb:[172,0,187]},{index:.25,rgb:[219,0,170]},{index:.38,rgb:[255,0,130]},{index:.5,rgb:[255,63,74]},{index:.63,rgb:[255,123,0]},{index:.75,rgb:[234,176,0]},{index:.88,rgb:[190,228,0]},{index:1,rgb:[147,255,0]}],cool:[{index:0,rgb:[125,0,179]},{index:.13,rgb:[116,0,218]},{index:.25,rgb:[98,74,237]},{index:.38,rgb:[68,146,231]},{index:.5,rgb:[0,204,197]},{index:.63,rgb:[0,247,146]},{index:.75,rgb:[0,255,88]},{index:.88,rgb:[40,255,8]},{index:1,rgb:[147,255,0]}],\\\"rainbow-soft\\\":[{index:0,rgb:[125,0,179]},{index:.1,rgb:[199,0,180]},{index:.2,rgb:[255,0,121]},{index:.3,rgb:[255,108,0]},{index:.4,rgb:[222,194,0]},{index:.5,rgb:[150,255,0]},{index:.6,rgb:[0,255,55]},{index:.7,rgb:[0,246,150]},{index:.8,rgb:[50,167,222]},{index:.9,rgb:[103,51,235]},{index:1,rgb:[124,0,186]}],bathymetry:[{index:0,rgb:[40,26,44]},{index:.13,rgb:[59,49,90]},{index:.25,rgb:[64,76,139]},{index:.38,rgb:[63,110,151]},{index:.5,rgb:[72,142,158]},{index:.63,rgb:[85,174,163]},{index:.75,rgb:[120,206,163]},{index:.88,rgb:[187,230,172]},{index:1,rgb:[253,254,204]}],cdom:[{index:0,rgb:[47,15,62]},{index:.13,rgb:[87,23,86]},{index:.25,rgb:[130,28,99]},{index:.38,rgb:[171,41,96]},{index:.5,rgb:[206,67,86]},{index:.63,rgb:[230,106,84]},{index:.75,rgb:[242,149,103]},{index:.88,rgb:[249,193,135]},{index:1,rgb:[254,237,176]}],chlorophyll:[{index:0,rgb:[18,36,20]},{index:.13,rgb:[25,63,41]},{index:.25,rgb:[24,91,59]},{index:.38,rgb:[13,119,72]},{index:.5,rgb:[18,148,80]},{index:.63,rgb:[80,173,89]},{index:.75,rgb:[132,196,122]},{index:.88,rgb:[175,221,162]},{index:1,rgb:[215,249,208]}],density:[{index:0,rgb:[54,14,36]},{index:.13,rgb:[89,23,80]},{index:.25,rgb:[110,45,132]},{index:.38,rgb:[120,77,178]},{index:.5,rgb:[120,113,213]},{index:.63,rgb:[115,151,228]},{index:.75,rgb:[134,185,227]},{index:.88,rgb:[177,214,227]},{index:1,rgb:[230,241,241]}],\\\"freesurface-blue\\\":[{index:0,rgb:[30,4,110]},{index:.13,rgb:[47,14,176]},{index:.25,rgb:[41,45,236]},{index:.38,rgb:[25,99,212]},{index:.5,rgb:[68,131,200]},{index:.63,rgb:[114,156,197]},{index:.75,rgb:[157,181,203]},{index:.88,rgb:[200,208,216]},{index:1,rgb:[241,237,236]}],\\\"freesurface-red\\\":[{index:0,rgb:[60,9,18]},{index:.13,rgb:[100,17,27]},{index:.25,rgb:[142,20,29]},{index:.38,rgb:[177,43,27]},{index:.5,rgb:[192,87,63]},{index:.63,rgb:[205,125,105]},{index:.75,rgb:[216,162,148]},{index:.88,rgb:[227,199,193]},{index:1,rgb:[241,237,236]}],oxygen:[{index:0,rgb:[64,5,5]},{index:.13,rgb:[106,6,15]},{index:.25,rgb:[144,26,7]},{index:.38,rgb:[168,64,3]},{index:.5,rgb:[188,100,4]},{index:.63,rgb:[206,136,11]},{index:.75,rgb:[220,174,25]},{index:.88,rgb:[231,215,44]},{index:1,rgb:[248,254,105]}],par:[{index:0,rgb:[51,20,24]},{index:.13,rgb:[90,32,35]},{index:.25,rgb:[129,44,34]},{index:.38,rgb:[159,68,25]},{index:.5,rgb:[182,99,19]},{index:.63,rgb:[199,134,22]},{index:.75,rgb:[212,171,35]},{index:.88,rgb:[221,210,54]},{index:1,rgb:[225,253,75]}],phase:[{index:0,rgb:[145,105,18]},{index:.13,rgb:[184,71,38]},{index:.25,rgb:[186,58,115]},{index:.38,rgb:[160,71,185]},{index:.5,rgb:[110,97,218]},{index:.63,rgb:[50,123,164]},{index:.75,rgb:[31,131,110]},{index:.88,rgb:[77,129,34]},{index:1,rgb:[145,105,18]}],salinity:[{index:0,rgb:[42,24,108]},{index:.13,rgb:[33,50,162]},{index:.25,rgb:[15,90,145]},{index:.38,rgb:[40,118,137]},{index:.5,rgb:[59,146,135]},{index:.63,rgb:[79,175,126]},{index:.75,rgb:[120,203,104]},{index:.88,rgb:[193,221,100]},{index:1,rgb:[253,239,154]}],temperature:[{index:0,rgb:[4,35,51]},{index:.13,rgb:[23,51,122]},{index:.25,rgb:[85,59,157]},{index:.38,rgb:[129,79,143]},{index:.5,rgb:[175,95,130]},{index:.63,rgb:[222,112,101]},{index:.75,rgb:[249,146,66]},{index:.88,rgb:[249,196,65]},{index:1,rgb:[232,250,91]}],turbidity:[{index:0,rgb:[34,31,27]},{index:.13,rgb:[65,50,41]},{index:.25,rgb:[98,69,52]},{index:.38,rgb:[131,89,57]},{index:.5,rgb:[161,112,59]},{index:.63,rgb:[185,140,66]},{index:.75,rgb:[202,174,88]},{index:.88,rgb:[216,209,126]},{index:1,rgb:[233,246,171]}],\\\"velocity-blue\\\":[{index:0,rgb:[17,32,64]},{index:.13,rgb:[35,52,116]},{index:.25,rgb:[29,81,156]},{index:.38,rgb:[31,113,162]},{index:.5,rgb:[50,144,169]},{index:.63,rgb:[87,173,176]},{index:.75,rgb:[149,196,189]},{index:.88,rgb:[203,221,211]},{index:1,rgb:[254,251,230]}],\\\"velocity-green\\\":[{index:0,rgb:[23,35,19]},{index:.13,rgb:[24,64,38]},{index:.25,rgb:[11,95,45]},{index:.38,rgb:[39,123,35]},{index:.5,rgb:[95,146,12]},{index:.63,rgb:[152,165,18]},{index:.75,rgb:[201,186,69]},{index:.88,rgb:[233,216,137]},{index:1,rgb:[255,253,205]}],cubehelix:[{index:0,rgb:[0,0,0]},{index:.07,rgb:[22,5,59]},{index:.13,rgb:[60,4,105]},{index:.2,rgb:[109,1,135]},{index:.27,rgb:[161,0,147]},{index:.33,rgb:[210,2,142]},{index:.4,rgb:[251,11,123]},{index:.47,rgb:[255,29,97]},{index:.53,rgb:[255,54,69]},{index:.6,rgb:[255,85,46]},{index:.67,rgb:[255,120,34]},{index:.73,rgb:[255,157,37]},{index:.8,rgb:[241,191,57]},{index:.87,rgb:[224,220,93]},{index:.93,rgb:[218,241,142]},{index:1,rgb:[227,253,198]}]}},{}],119:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./colorScale\\\"),i=t(\\\"lerp\\\");function a(t){return[t[0]/255,t[1]/255,t[2]/255,t[3]]}function o(t){for(var e,r=\\\"#\\\",n=0;n<3;++n)r+=(\\\"00\\\"+(e=(e=t[n]).toString(16))).substr(e.length);return r}function s(t){return\\\"rgba(\\\"+t.join(\\\",\\\")+\\\")\\\"}e.exports=function(t){var e,r,l,c,u,f,h,p,d,g;t||(t={});p=(t.nshades||72)-1,h=t.format||\\\"hex\\\",(f=t.colormap)||(f=\\\"jet\\\");if(\\\"string\\\"==typeof f){if(f=f.toLowerCase(),!n[f])throw Error(f+\\\" not a supported colorscale\\\");u=n[f]}else{if(!Array.isArray(f))throw Error(\\\"unsupported colormap option\\\",f);u=f.slice()}if(u.length>p+1)throw new Error(f+\\\" map requires nshades to be at least size \\\"+u.length);d=Array.isArray(t.alpha)?2!==t.alpha.length?[1,1]:t.alpha.slice():\\\"number\\\"==typeof t.alpha?[t.alpha,t.alpha]:[1,1];e=u.map(function(t){return Math.round(t.index*p)}),d[0]=Math.min(Math.max(d[0],0),1),d[1]=Math.min(Math.max(d[1],0),1);var v=u.map(function(t,e){var r=u[e].index,n=u[e].rgb.slice();return 4===n.length&&n[3]>=0&&n[3]<=1?n:(n[3]=d[0]+(d[1]-d[0])*r,n)}),m=[];for(g=0;g<e.length-1;++g){c=e[g+1]-e[g],r=v[g],l=v[g+1];for(var y=0;y<c;y++){var x=y/c;m.push([Math.round(i(r[0],l[0],x)),Math.round(i(r[1],l[1],x)),Math.round(i(r[2],l[2],x)),i(r[3],l[3],x)])}}m.push(u[u.length-1].rgb.concat(d[1])),\\\"hex\\\"===h?m=m.map(o):\\\"rgbaString\\\"===h?m=m.map(s):\\\"float\\\"===h&&(m=m.map(a));return m}},{\\\"./colorScale\\\":118,lerp:420}],120:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,a){var o=n(e,r,a);if(0===o){var s=i(n(t,e,r)),c=i(n(t,e,a));if(s===c){if(0===s){var u=l(t,e,r),f=l(t,e,a);return u===f?0:u?1:-1}return 0}return 0===c?s>0?-1:l(t,e,a)?-1:1:0===s?c>0?1:l(t,e,r)?1:-1:i(c-s)}var h=n(t,e,r);if(h>0)return o>0&&n(t,e,a)>0?1:-1;if(h<0)return o>0||n(t,e,a)>0?1:-1;var p=n(t,e,a);return p>0?1:l(t,e,r)?1:-1};var n=t(\\\"robust-orientation\\\"),i=t(\\\"signum\\\"),a=t(\\\"two-sum\\\"),o=t(\\\"robust-product\\\"),s=t(\\\"robust-sum\\\");function l(t,e,r){var n=a(t[0],-e[0]),i=a(t[1],-e[1]),l=a(r[0],-e[0]),c=a(r[1],-e[1]),u=s(o(n,l),o(i,c));return u[u.length-1]>=0}},{\\\"robust-orientation\\\":497,\\\"robust-product\\\":498,\\\"robust-sum\\\":502,signum:503,\\\"two-sum\\\":531}],121:[function(t,e,r){e.exports=function(t,e){var r=t.length,a=t.length-e.length;if(a)return a;switch(r){case 0:return 0;case 1:return t[0]-e[0];case 2:return t[0]+t[1]-e[0]-e[1]||n(t[0],t[1])-n(e[0],e[1]);case 3:var o=t[0]+t[1],s=e[0]+e[1];if(a=o+t[2]-(s+e[2]))return a;var l=n(t[0],t[1]),c=n(e[0],e[1]);return n(l,t[2])-n(c,e[2])||n(l+t[2],o)-n(c+e[2],s);case 4:var u=t[0],f=t[1],h=t[2],p=t[3],d=e[0],g=e[1],v=e[2],m=e[3];return u+f+h+p-(d+g+v+m)||n(u,f,h,p)-n(d,g,v,m,d)||n(u+f,u+h,u+p,f+h,f+p,h+p)-n(d+g,d+v,d+m,g+v,g+m,v+m)||n(u+f+h,u+f+p,u+h+p,f+h+p)-n(d+g+v,d+g+m,d+v+m,g+v+m);default:for(var y=t.slice().sort(i),x=e.slice().sort(i),b=0;b<r;++b)if(a=y[b]-x[b])return a;return 0}};var n=Math.min;function i(t,e){return t-e}},{}],122:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"compare-cell\\\"),i=t(\\\"cell-orientation\\\");e.exports=function(t,e){return n(t,e)||i(t)-i(e)}},{\\\"cell-orientation\\\":105,\\\"compare-cell\\\":121}],123:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./lib/ch1d\\\"),i=t(\\\"./lib/ch2d\\\"),a=t(\\\"./lib/chnd\\\");e.exports=function(t){var e=t.length;if(0===e)return[];if(1===e)return[[0]];var r=t[0].length;if(0===r)return[];if(1===r)return n(t);if(2===r)return i(t);return a(t,r)}},{\\\"./lib/ch1d\\\":124,\\\"./lib/ch2d\\\":125,\\\"./lib/chnd\\\":126}],124:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){for(var e=0,r=0,n=1;n<t.length;++n)t[n][0]<t[e][0]&&(e=n),t[n][0]>t[r][0]&&(r=n);return e<r?[[e],[r]]:e>r?[[r],[e]]:[[e]]}},{}],125:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=n(t),r=e.length;if(r<=2)return[];for(var i=new Array(r),a=e[r-1],o=0;o<r;++o){var s=e[o];i[o]=[a,s],a=s}return i};var n=t(\\\"monotone-convex-hull-2d\\\")},{\\\"monotone-convex-hull-2d\\\":429}],126:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){try{return n(t,!0)}catch(s){var r=i(t);if(r.length<=e)return[];var a=function(t,e){for(var r=t.length,n=new Array(r),i=0;i<e.length;++i)n[i]=t[e[i]];for(var a=e.length,i=0;i<r;++i)e.indexOf(i)<0&&(n[a++]=t[i]);return n}(t,r),o=n(a,!0);return function(t,e){for(var r=t.length,n=e.length,i=0;i<r;++i)for(var a=t[i],o=0;o<a.length;++o){var s=a[o];if(s<n)a[o]=e[s];else{s-=n;for(var l=0;l<n;++l)s>=e[l]&&(s+=1);a[o]=s}}return t}(o,r)}};var n=t(\\\"incremental-convex-hull\\\"),i=t(\\\"affine-hull\\\")},{\\\"affine-hull\\\":55,\\\"incremental-convex-hull\\\":408}],127:[function(t,e,r){e.exports={AFG:\\\"afghan\\\",ALA:\\\"\\\\\\\\b\\\\\\\\wland\\\",ALB:\\\"albania\\\",DZA:\\\"algeria\\\",ASM:\\\"^(?=.*americ).*samoa\\\",AND:\\\"andorra\\\",AGO:\\\"angola\\\",AIA:\\\"anguill?a\\\",ATA:\\\"antarctica\\\",ATG:\\\"antigua\\\",ARG:\\\"argentin\\\",ARM:\\\"armenia\\\",ABW:\\\"^(?!.*bonaire).*\\\\\\\\baruba\\\",AUS:\\\"australia\\\",AUT:\\\"^(?!.*hungary).*austria|\\\\\\\\baustri.*\\\\\\\\bemp\\\",AZE:\\\"azerbaijan\\\",BHS:\\\"bahamas\\\",BHR:\\\"bahrain\\\",BGD:\\\"bangladesh|^(?=.*east).*paki?stan\\\",BRB:\\\"barbados\\\",BLR:\\\"belarus|byelo\\\",BEL:\\\"^(?!.*luxem).*belgium\\\",BLZ:\\\"belize|^(?=.*british).*honduras\\\",BEN:\\\"benin|dahome\\\",BMU:\\\"bermuda\\\",BTN:\\\"bhutan\\\",BOL:\\\"bolivia\\\",BES:\\\"^(?=.*bonaire).*eustatius|^(?=.*carib).*netherlands|\\\\\\\\bbes.?islands\\\",BIH:\\\"herzegovina|bosnia\\\",BWA:\\\"botswana|bechuana\\\",BVT:\\\"bouvet\\\",BRA:\\\"brazil\\\",IOT:\\\"british.?indian.?ocean\\\",BRN:\\\"brunei\\\",BGR:\\\"bulgaria\\\",BFA:\\\"burkina|\\\\\\\\bfaso|upper.?volta\\\",BDI:\\\"burundi\\\",CPV:\\\"verde\\\",KHM:\\\"cambodia|kampuchea|khmer\\\",CMR:\\\"cameroon\\\",CAN:\\\"canada\\\",CYM:\\\"cayman\\\",CAF:\\\"\\\\\\\\bcentral.african.republic\\\",TCD:\\\"\\\\\\\\bchad\\\",CHL:\\\"\\\\\\\\bchile\\\",CHN:\\\"^(?!.*\\\\\\\\bmac)(?!.*\\\\\\\\bhong)(?!.*\\\\\\\\btai)(?!.*\\\\\\\\brep).*china|^(?=.*peo)(?=.*rep).*china\\\",CXR:\\\"christmas\\\",CCK:\\\"\\\\\\\\bcocos|keeling\\\",COL:\\\"colombia\\\",COM:\\\"comoro\\\",COG:\\\"^(?!.*\\\\\\\\bdem)(?!.*\\\\\\\\bd[\\\\\\\\.]?r)(?!.*kinshasa)(?!.*zaire)(?!.*belg)(?!.*l.opoldville)(?!.*free).*\\\\\\\\bcongo\\\",COK:\\\"\\\\\\\\bcook\\\",CRI:\\\"costa.?rica\\\",CIV:\\\"ivoire|ivory\\\",HRV:\\\"croatia\\\",CUB:\\\"\\\\\\\\bcuba\\\",CUW:\\\"^(?!.*bonaire).*\\\\\\\\bcura(c|\\\\xe7)ao\\\",CYP:\\\"cyprus\\\",CSK:\\\"czechoslovakia\\\",CZE:\\\"^(?=.*rep).*czech|czechia|bohemia\\\",COD:\\\"\\\\\\\\bdem.*congo|congo.*\\\\\\\\bdem|congo.*\\\\\\\\bd[\\\\\\\\.]?r|\\\\\\\\bd[\\\\\\\\.]?r.*congo|belgian.?congo|congo.?free.?state|kinshasa|zaire|l.opoldville|drc|droc|rdc\\\",DNK:\\\"denmark\\\",DJI:\\\"djibouti\\\",DMA:\\\"dominica(?!n)\\\",DOM:\\\"dominican.rep\\\",ECU:\\\"ecuador\\\",EGY:\\\"egypt\\\",SLV:\\\"el.?salvador\\\",GNQ:\\\"guine.*eq|eq.*guine|^(?=.*span).*guinea\\\",ERI:\\\"eritrea\\\",EST:\\\"estonia\\\",ETH:\\\"ethiopia|abyssinia\\\",FLK:\\\"falkland|malvinas\\\",FRO:\\\"faroe|faeroe\\\",FJI:\\\"fiji\\\",FIN:\\\"finland\\\",FRA:\\\"^(?!.*\\\\\\\\bdep)(?!.*martinique).*france|french.?republic|\\\\\\\\bgaul\\\",GUF:\\\"^(?=.*french).*guiana\\\",PYF:\\\"french.?polynesia|tahiti\\\",ATF:\\\"french.?southern\\\",GAB:\\\"gabon\\\",GMB:\\\"gambia\\\",GEO:\\\"^(?!.*south).*georgia\\\",DDR:\\\"german.?democratic.?republic|democratic.?republic.*germany|east.germany\\\",DEU:\\\"^(?!.*east).*germany|^(?=.*\\\\\\\\bfed.*\\\\\\\\brep).*german\\\",GHA:\\\"ghana|gold.?coast\\\",GIB:\\\"gibraltar\\\",GRC:\\\"greece|hellenic|hellas\\\",GRL:\\\"greenland\\\",GRD:\\\"grenada\\\",GLP:\\\"guadeloupe\\\",GUM:\\\"\\\\\\\\bguam\\\",GTM:\\\"guatemala\\\",GGY:\\\"guernsey\\\",GIN:\\\"^(?!.*eq)(?!.*span)(?!.*bissau)(?!.*portu)(?!.*new).*guinea\\\",GNB:\\\"bissau|^(?=.*portu).*guinea\\\",GUY:\\\"guyana|british.?guiana\\\",HTI:\\\"haiti\\\",HMD:\\\"heard.*mcdonald\\\",VAT:\\\"holy.?see|vatican|papal.?st\\\",HND:\\\"^(?!.*brit).*honduras\\\",HKG:\\\"hong.?kong\\\",HUN:\\\"^(?!.*austr).*hungary\\\",ISL:\\\"iceland\\\",IND:\\\"india(?!.*ocea)\\\",IDN:\\\"indonesia\\\",IRN:\\\"\\\\\\\\biran|persia\\\",IRQ:\\\"\\\\\\\\biraq|mesopotamia\\\",IRL:\\\"(^ireland)|(^republic.*ireland)\\\",IMN:\\\"^(?=.*isle).*\\\\\\\\bman\\\",ISR:\\\"israel\\\",ITA:\\\"italy\\\",JAM:\\\"jamaica\\\",JPN:\\\"japan\\\",JEY:\\\"jersey\\\",JOR:\\\"jordan\\\",KAZ:\\\"kazak\\\",KEN:\\\"kenya|british.?east.?africa|east.?africa.?prot\\\",KIR:\\\"kiribati\\\",PRK:\\\"^(?=.*democrat|people|north|d.*p.*.r).*\\\\\\\\bkorea|dprk|korea.*(d.*p.*r)\\\",KWT:\\\"kuwait\\\",KGZ:\\\"kyrgyz|kirghiz\\\",LAO:\\\"\\\\\\\\blaos?\\\\\\\\b\\\",LVA:\\\"latvia\\\",LBN:\\\"lebanon\\\",LSO:\\\"lesotho|basuto\\\",LBR:\\\"liberia\\\",LBY:\\\"libya\\\",LIE:\\\"liechtenstein\\\",LTU:\\\"lithuania\\\",LUX:\\\"^(?!.*belg).*luxem\\\",MAC:\\\"maca(o|u)\\\",MDG:\\\"madagascar|malagasy\\\",MWI:\\\"malawi|nyasa\\\",MYS:\\\"malaysia\\\",MDV:\\\"maldive\\\",MLI:\\\"\\\\\\\\bmali\\\\\\\\b\\\",MLT:\\\"\\\\\\\\bmalta\\\",MHL:\\\"marshall\\\",MTQ:\\\"martinique\\\",MRT:\\\"mauritania\\\",MUS:\\\"mauritius\\\",MYT:\\\"\\\\\\\\bmayotte\\\",MEX:\\\"\\\\\\\\bmexic\\\",FSM:\\\"fed.*micronesia|micronesia.*fed\\\",MCO:\\\"monaco\\\",MNG:\\\"mongolia\\\",MNE:\\\"^(?!.*serbia).*montenegro\\\",MSR:\\\"montserrat\\\",MAR:\\\"morocco|\\\\\\\\bmaroc\\\",MOZ:\\\"mozambique\\\",MMR:\\\"myanmar|burma\\\",NAM:\\\"namibia\\\",NRU:\\\"nauru\\\",NPL:\\\"nepal\\\",NLD:\\\"^(?!.*\\\\\\\\bant)(?!.*\\\\\\\\bcarib).*netherlands\\\",ANT:\\\"^(?=.*\\\\\\\\bant).*(nether|dutch)\\\",NCL:\\\"new.?caledonia\\\",NZL:\\\"new.?zealand\\\",NIC:\\\"nicaragua\\\",NER:\\\"\\\\\\\\bniger(?!ia)\\\",NGA:\\\"nigeria\\\",NIU:\\\"niue\\\",NFK:\\\"norfolk\\\",MNP:\\\"mariana\\\",NOR:\\\"norway\\\",OMN:\\\"\\\\\\\\boman|trucial\\\",PAK:\\\"^(?!.*east).*paki?stan\\\",PLW:\\\"palau\\\",PSE:\\\"palestin|\\\\\\\\bgaza|west.?bank\\\",PAN:\\\"panama\\\",PNG:\\\"papua|new.?guinea\\\",PRY:\\\"paraguay\\\",PER:\\\"peru\\\",PHL:\\\"philippines\\\",PCN:\\\"pitcairn\\\",POL:\\\"poland\\\",PRT:\\\"portugal\\\",PRI:\\\"puerto.?rico\\\",QAT:\\\"qatar\\\",KOR:\\\"^(?!.*d.*p.*r)(?!.*democrat)(?!.*people)(?!.*north).*\\\\\\\\bkorea(?!.*d.*p.*r)\\\",MDA:\\\"moldov|b(a|e)ssarabia\\\",REU:\\\"r(e|\\\\xe9)union\\\",ROU:\\\"r(o|u|ou)mania\\\",RUS:\\\"\\\\\\\\brussia|soviet.?union|u\\\\\\\\.?s\\\\\\\\.?s\\\\\\\\.?r|socialist.?republics\\\",RWA:\\\"rwanda\\\",BLM:\\\"barth(e|\\\\xe9)lemy\\\",SHN:\\\"helena\\\",KNA:\\\"kitts|\\\\\\\\bnevis\\\",LCA:\\\"\\\\\\\\blucia\\\",MAF:\\\"^(?=.*collectivity).*martin|^(?=.*france).*martin(?!ique)|^(?=.*french).*martin(?!ique)\\\",SPM:\\\"miquelon\\\",VCT:\\\"vincent\\\",WSM:\\\"^(?!.*amer).*samoa\\\",SMR:\\\"san.?marino\\\",STP:\\\"\\\\\\\\bs(a|\\\\xe3)o.?tom(e|\\\\xe9)\\\",SAU:\\\"\\\\\\\\bsa\\\\\\\\w*.?arabia\\\",SEN:\\\"senegal\\\",SRB:\\\"^(?!.*monte).*serbia\\\",SYC:\\\"seychell\\\",SLE:\\\"sierra\\\",SGP:\\\"singapore\\\",SXM:\\\"^(?!.*martin)(?!.*saba).*maarten\\\",SVK:\\\"^(?!.*cze).*slovak\\\",SVN:\\\"slovenia\\\",SLB:\\\"solomon\\\",SOM:\\\"somali\\\",ZAF:\\\"south.africa|s\\\\\\\\\\\\\\\\..?africa\\\",SGS:\\\"south.?georgia|sandwich\\\",SSD:\\\"\\\\\\\\bs\\\\\\\\w*.?sudan\\\",ESP:\\\"spain\\\",LKA:\\\"sri.?lanka|ceylon\\\",SDN:\\\"^(?!.*\\\\\\\\bs(?!u)).*sudan\\\",SUR:\\\"surinam|dutch.?guiana\\\",SJM:\\\"svalbard\\\",SWZ:\\\"swaziland\\\",SWE:\\\"sweden\\\",CHE:\\\"switz|swiss\\\",SYR:\\\"syria\\\",TWN:\\\"taiwan|taipei|formosa|^(?!.*peo)(?=.*rep).*china\\\",TJK:\\\"tajik\\\",THA:\\\"thailand|\\\\\\\\bsiam\\\",MKD:\\\"macedonia|fyrom\\\",TLS:\\\"^(?=.*leste).*timor|^(?=.*east).*timor\\\",TGO:\\\"togo\\\",TKL:\\\"tokelau\\\",TON:\\\"tonga\\\",TTO:\\\"trinidad|tobago\\\",TUN:\\\"tunisia\\\",TUR:\\\"turkey\\\",TKM:\\\"turkmen\\\",TCA:\\\"turks\\\",TUV:\\\"tuvalu\\\",UGA:\\\"uganda\\\",UKR:\\\"ukrain\\\",ARE:\\\"emirates|^u\\\\\\\\.?a\\\\\\\\.?e\\\\\\\\.?$|united.?arab.?em\\\",GBR:\\\"united.?kingdom|britain|^u\\\\\\\\.?k\\\\\\\\.?$\\\",TZA:\\\"tanzania\\\",USA:\\\"united.?states\\\\\\\\b(?!.*islands)|\\\\\\\\bu\\\\\\\\.?s\\\\\\\\.?a\\\\\\\\.?\\\\\\\\b|^\\\\\\\\s*u\\\\\\\\.?s\\\\\\\\.?\\\\\\\\b(?!.*islands)\\\",UMI:\\\"minor.?outlying.?is\\\",URY:\\\"uruguay\\\",UZB:\\\"uzbek\\\",VUT:\\\"vanuatu|new.?hebrides\\\",VEN:\\\"venezuela\\\",VNM:\\\"^(?!.*republic).*viet.?nam|^(?=.*socialist).*viet.?nam\\\",VGB:\\\"^(?=.*\\\\\\\\bu\\\\\\\\.?\\\\\\\\s?k).*virgin|^(?=.*brit).*virgin|^(?=.*kingdom).*virgin\\\",VIR:\\\"^(?=.*\\\\\\\\bu\\\\\\\\.?\\\\\\\\s?s).*virgin|^(?=.*states).*virgin\\\",WLF:\\\"futuna|wallis\\\",ESH:\\\"western.sahara\\\",YEM:\\\"^(?!.*arab)(?!.*north)(?!.*sana)(?!.*peo)(?!.*dem)(?!.*south)(?!.*aden)(?!.*\\\\\\\\bp\\\\\\\\.?d\\\\\\\\.?r).*yemen\\\",YMD:\\\"^(?=.*peo).*yemen|^(?!.*rep)(?=.*dem).*yemen|^(?=.*south).*yemen|^(?=.*aden).*yemen|^(?=.*\\\\\\\\bp\\\\\\\\.?d\\\\\\\\.?r).*yemen\\\",YUG:\\\"yugoslavia\\\",ZMB:\\\"zambia|northern.?rhodesia\\\",EAZ:\\\"zanzibar\\\",ZWE:\\\"zimbabwe|^(?!.*northern).*rhodesia\\\"}},{}],128:[function(t,e,r){e.exports=[\\\"xx-small\\\",\\\"x-small\\\",\\\"small\\\",\\\"medium\\\",\\\"large\\\",\\\"x-large\\\",\\\"xx-large\\\",\\\"larger\\\",\\\"smaller\\\"]},{}],129:[function(t,e,r){e.exports=[\\\"normal\\\",\\\"condensed\\\",\\\"semi-condensed\\\",\\\"extra-condensed\\\",\\\"ultra-condensed\\\",\\\"expanded\\\",\\\"semi-expanded\\\",\\\"extra-expanded\\\",\\\"ultra-expanded\\\"]},{}],130:[function(t,e,r){e.exports=[\\\"normal\\\",\\\"italic\\\",\\\"oblique\\\"]},{}],131:[function(t,e,r){e.exports=[\\\"normal\\\",\\\"bold\\\",\\\"bolder\\\",\\\"lighter\\\",\\\"100\\\",\\\"200\\\",\\\"300\\\",\\\"400\\\",\\\"500\\\",\\\"600\\\",\\\"700\\\",\\\"800\\\",\\\"900\\\"]},{}],132:[function(t,e,r){\\\"use strict\\\";e.exports={parse:t(\\\"./parse\\\"),stringify:t(\\\"./stringify\\\")}},{\\\"./parse\\\":134,\\\"./stringify\\\":135}],133:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"css-font-size-keywords\\\");e.exports={isSize:function(t){return/^[\\\\d\\\\.]/.test(t)||-1!==t.indexOf(\\\"/\\\")||-1!==n.indexOf(t)}}},{\\\"css-font-size-keywords\\\":128}],134:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"unquote\\\"),i=t(\\\"css-global-keywords\\\"),a=t(\\\"css-system-font-keywords\\\"),o=t(\\\"css-font-weight-keywords\\\"),s=t(\\\"css-font-style-keywords\\\"),l=t(\\\"css-font-stretch-keywords\\\"),c=t(\\\"string-split-by\\\"),u=t(\\\"./lib/util\\\").isSize;e.exports=h;var f=h.cache={};function h(t){if(\\\"string\\\"!=typeof t)throw new Error(\\\"Font argument must be a string.\\\");if(f[t])return f[t];if(\\\"\\\"===t)throw new Error(\\\"Cannot parse an empty string.\\\");if(-1!==a.indexOf(t))return f[t]={system:t};for(var e,r={style:\\\"normal\\\",variant:\\\"normal\\\",weight:\\\"normal\\\",stretch:\\\"normal\\\",lineHeight:\\\"normal\\\",size:\\\"1rem\\\",family:[\\\"serif\\\"]},h=c(t,/\\\\s+/);e=h.shift();){if(-1!==i.indexOf(e))return[\\\"style\\\",\\\"variant\\\",\\\"weight\\\",\\\"stretch\\\"].forEach(function(t){r[t]=e}),f[t]=r;if(-1===s.indexOf(e))if(\\\"normal\\\"!==e&&\\\"small-caps\\\"!==e)if(-1===l.indexOf(e)){if(-1===o.indexOf(e)){if(u(e)){var d=c(e,\\\"/\\\");if(r.size=d[0],null!=d[1]?r.lineHeight=p(d[1]):\\\"/\\\"===h[0]&&(h.shift(),r.lineHeight=p(h.shift())),!h.length)throw new Error(\\\"Missing required font-family.\\\");return r.family=c(h.join(\\\" \\\"),/\\\\s*,\\\\s*/).map(n),f[t]=r}throw new Error(\\\"Unknown or unsupported font token: \\\"+e)}r.weight=e}else r.stretch=e;else r.variant=e;else r.style=e}throw new Error(\\\"Missing required font-size.\\\")}function p(t){var e=parseFloat(t);return e.toString()===t?e:t}},{\\\"./lib/util\\\":133,\\\"css-font-stretch-keywords\\\":129,\\\"css-font-style-keywords\\\":130,\\\"css-font-weight-keywords\\\":131,\\\"css-global-keywords\\\":136,\\\"css-system-font-keywords\\\":137,\\\"string-split-by\\\":516,unquote:535}],135:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"pick-by-alias\\\"),i=t(\\\"./lib/util\\\").isSize,a=g(t(\\\"css-global-keywords\\\")),o=g(t(\\\"css-system-font-keywords\\\")),s=g(t(\\\"css-font-weight-keywords\\\")),l=g(t(\\\"css-font-style-keywords\\\")),c=g(t(\\\"css-font-stretch-keywords\\\")),u={normal:1,\\\"small-caps\\\":1},f={serif:1,\\\"sans-serif\\\":1,monospace:1,cursive:1,fantasy:1,\\\"system-ui\\\":1},h=\\\"1rem\\\",p=\\\"serif\\\";function d(t,e){if(t&&!e[t]&&!a[t])throw Error(\\\"Unknown keyword `\\\"+t+\\\"`\\\");return t}function g(t){for(var e={},r=0;r<t.length;r++)e[t[r]]=1;return e}e.exports=function(t){if((t=n(t,{style:\\\"style fontstyle fontStyle font-style slope distinction\\\",variant:\\\"variant font-variant fontVariant fontvariant var capitalization\\\",weight:\\\"weight w font-weight fontWeight fontweight\\\",stretch:\\\"stretch font-stretch fontStretch fontstretch width\\\",size:\\\"size s font-size fontSize fontsize height em emSize\\\",lineHeight:\\\"lh line-height lineHeight lineheight leading\\\",family:\\\"font family fontFamily font-family fontfamily type typeface face\\\",system:\\\"system reserved default global\\\"})).system)return t.system&&d(t.system,o),t.system;if(d(t.style,l),d(t.variant,u),d(t.weight,s),d(t.stretch,c),null==t.size&&(t.size=h),\\\"number\\\"==typeof t.size&&(t.size+=\\\"px\\\"),!i)throw Error(\\\"Bad size value `\\\"+t.size+\\\"`\\\");t.family||(t.family=p),Array.isArray(t.family)&&(t.family.length||(t.family=[p]),t.family=t.family.map(function(t){return f[t]?t:'\\\"'+t+'\\\"'}).join(\\\", \\\"));var e=[];return e.push(t.style),t.variant!==t.style&&e.push(t.variant),t.weight!==t.variant&&t.weight!==t.style&&e.push(t.weight),t.stretch!==t.weight&&t.stretch!==t.variant&&t.stretch!==t.style&&e.push(t.stretch),e.push(t.size+(null==t.lineHeight||\\\"normal\\\"===t.lineHeight||t.lineHeight+\\\"\\\"==\\\"1\\\"?\\\"\\\":\\\"/\\\"+t.lineHeight)),e.push(t.family),e.filter(Boolean).join(\\\" \\\")}},{\\\"./lib/util\\\":133,\\\"css-font-stretch-keywords\\\":129,\\\"css-font-style-keywords\\\":130,\\\"css-font-weight-keywords\\\":131,\\\"css-global-keywords\\\":136,\\\"css-system-font-keywords\\\":137,\\\"pick-by-alias\\\":460}],136:[function(t,e,r){e.exports=[\\\"inherit\\\",\\\"initial\\\",\\\"unset\\\"]},{}],137:[function(t,e,r){e.exports=[\\\"caption\\\",\\\"icon\\\",\\\"menu\\\",\\\"message-box\\\",\\\"small-caption\\\",\\\"status-bar\\\"]},{}],138:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,n,i,a){var o=i-1,s=i*i,l=o*o,c=(1+2*i)*l,u=i*l,f=s*(3-2*i),h=s*o;if(t.length){a||(a=new Array(t.length));for(var p=t.length-1;p>=0;--p)a[p]=c*t[p]+u*e[p]+f*r[p]+h*n[p];return a}return c*t+u*e+f*r+h*n},e.exports.derivative=function(t,e,r,n,i,a){var o=6*i*i-6*i,s=3*i*i-4*i+1,l=-6*i*i+6*i,c=3*i*i-2*i;if(t.length){a||(a=new Array(t.length));for(var u=t.length-1;u>=0;--u)a[u]=o*t[u]+s*e[u]+l*r[u]+c*n[u];return a}return o*t+s*e+l*r[u]+c*n}},{}],139:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./lib/thunk.js\\\");function i(){this.argTypes=[],this.shimArgs=[],this.arrayArgs=[],this.arrayBlockIndices=[],this.scalarArgs=[],this.offsetArgs=[],this.offsetArgIndex=[],this.indexArgs=[],this.shapeArgs=[],this.funcName=\\\"\\\",this.pre=null,this.body=null,this.post=null,this.debug=!1}e.exports=function(t){var e=new i;e.pre=t.pre,e.body=t.body,e.post=t.post;var r=t.args.slice(0);e.argTypes=r;for(var a=0;a<r.length;++a){var o=r[a];if(\\\"array\\\"===o||\\\"object\\\"==typeof o&&o.blockIndices){if(e.argTypes[a]=\\\"array\\\",e.arrayArgs.push(a),e.arrayBlockIndices.push(o.blockIndices?o.blockIndices:0),e.shimArgs.push(\\\"array\\\"+a),a<e.pre.args.length&&e.pre.args[a].count>0)throw new Error(\\\"cwise: pre() block may not reference array args\\\");if(a<e.post.args.length&&e.post.args[a].count>0)throw new Error(\\\"cwise: post() block may not reference array args\\\")}else if(\\\"scalar\\\"===o)e.scalarArgs.push(a),e.shimArgs.push(\\\"scalar\\\"+a);else if(\\\"index\\\"===o){if(e.indexArgs.push(a),a<e.pre.args.length&&e.pre.args[a].count>0)throw new Error(\\\"cwise: pre() block may not reference array index\\\");if(a<e.body.args.length&&e.body.args[a].lvalue)throw new Error(\\\"cwise: body() block may not write to array index\\\");if(a<e.post.args.length&&e.post.args[a].count>0)throw new Error(\\\"cwise: post() block may not reference array index\\\")}else if(\\\"shape\\\"===o){if(e.shapeArgs.push(a),a<e.pre.args.length&&e.pre.args[a].lvalue)throw new Error(\\\"cwise: pre() block may not write to array shape\\\");if(a<e.body.args.length&&e.body.args[a].lvalue)throw new Error(\\\"cwise: body() block may not write to array shape\\\");if(a<e.post.args.length&&e.post.args[a].lvalue)throw new Error(\\\"cwise: post() block may not write to array shape\\\")}else{if(\\\"object\\\"!=typeof o||!o.offset)throw new Error(\\\"cwise: Unknown argument type \\\"+r[a]);e.argTypes[a]=\\\"offset\\\",e.offsetArgs.push({array:o.array,offset:o.offset}),e.offsetArgIndex.push(a)}}if(e.arrayArgs.length<=0)throw new Error(\\\"cwise: No array arguments specified\\\");if(e.pre.args.length>r.length)throw new Error(\\\"cwise: Too many arguments in pre() block\\\");if(e.body.args.length>r.length)throw new Error(\\\"cwise: Too many arguments in body() block\\\");if(e.post.args.length>r.length)throw new Error(\\\"cwise: Too many arguments in post() block\\\");return e.debug=!!t.printCode||!!t.debug,e.funcName=t.funcName||\\\"cwise\\\",e.blockSize=t.blockSize||64,n(e)}},{\\\"./lib/thunk.js\\\":141}],140:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"uniq\\\");function i(t,e,r){var n,i,a=t.length,o=e.arrayArgs.length,s=e.indexArgs.length>0,l=[],c=[],u=0,f=0;for(n=0;n<a;++n)c.push([\\\"i\\\",n,\\\"=0\\\"].join(\\\"\\\"));for(i=0;i<o;++i)for(n=0;n<a;++n)f=u,u=t[n],0===n?c.push([\\\"d\\\",i,\\\"s\\\",n,\\\"=t\\\",i,\\\"p\\\",u].join(\\\"\\\")):c.push([\\\"d\\\",i,\\\"s\\\",n,\\\"=(t\\\",i,\\\"p\\\",u,\\\"-s\\\",f,\\\"*t\\\",i,\\\"p\\\",f,\\\")\\\"].join(\\\"\\\"));for(c.length>0&&l.push(\\\"var \\\"+c.join(\\\",\\\")),n=a-1;n>=0;--n)u=t[n],l.push([\\\"for(i\\\",n,\\\"=0;i\\\",n,\\\"<s\\\",u,\\\";++i\\\",n,\\\"){\\\"].join(\\\"\\\"));for(l.push(r),n=0;n<a;++n){for(f=u,u=t[n],i=0;i<o;++i)l.push([\\\"p\\\",i,\\\"+=d\\\",i,\\\"s\\\",n].join(\\\"\\\"));s&&(n>0&&l.push([\\\"index[\\\",f,\\\"]-=s\\\",f].join(\\\"\\\")),l.push([\\\"++index[\\\",u,\\\"]\\\"].join(\\\"\\\"))),l.push(\\\"}\\\")}return l.join(\\\"\\\\n\\\")}function a(t,e,r){for(var n=t.body,i=[],a=[],o=0;o<t.args.length;++o){var s=t.args[o];if(!(s.count<=0)){var l=new RegExp(s.name,\\\"g\\\"),c=\\\"\\\",u=e.arrayArgs.indexOf(o);switch(e.argTypes[o]){case\\\"offset\\\":var f=e.offsetArgIndex.indexOf(o);u=e.offsetArgs[f].array,c=\\\"+q\\\"+f;case\\\"array\\\":c=\\\"p\\\"+u+c;var h=\\\"l\\\"+o,p=\\\"a\\\"+u;if(0===e.arrayBlockIndices[u])1===s.count?\\\"generic\\\"===r[u]?s.lvalue?(i.push([\\\"var \\\",h,\\\"=\\\",p,\\\".get(\\\",c,\\\")\\\"].join(\\\"\\\")),n=n.replace(l,h),a.push([p,\\\".set(\\\",c,\\\",\\\",h,\\\")\\\"].join(\\\"\\\"))):n=n.replace(l,[p,\\\".get(\\\",c,\\\")\\\"].join(\\\"\\\")):n=n.replace(l,[p,\\\"[\\\",c,\\\"]\\\"].join(\\\"\\\")):\\\"generic\\\"===r[u]?(i.push([\\\"var \\\",h,\\\"=\\\",p,\\\".get(\\\",c,\\\")\\\"].join(\\\"\\\")),n=n.replace(l,h),s.lvalue&&a.push([p,\\\".set(\\\",c,\\\",\\\",h,\\\")\\\"].join(\\\"\\\"))):(i.push([\\\"var \\\",h,\\\"=\\\",p,\\\"[\\\",c,\\\"]\\\"].join(\\\"\\\")),n=n.replace(l,h),s.lvalue&&a.push([p,\\\"[\\\",c,\\\"]=\\\",h].join(\\\"\\\")));else{for(var d=[s.name],g=[c],v=0;v<Math.abs(e.arrayBlockIndices[u]);v++)d.push(\\\"\\\\\\\\s*\\\\\\\\[([^\\\\\\\\]]+)\\\\\\\\]\\\"),g.push(\\\"$\\\"+(v+1)+\\\"*t\\\"+u+\\\"b\\\"+v);if(l=new RegExp(d.join(\\\"\\\"),\\\"g\\\"),c=g.join(\\\"+\\\"),\\\"generic\\\"===r[u])throw new Error(\\\"cwise: Generic arrays not supported in combination with blocks!\\\");n=n.replace(l,[p,\\\"[\\\",c,\\\"]\\\"].join(\\\"\\\"))}break;case\\\"scalar\\\":n=n.replace(l,\\\"Y\\\"+e.scalarArgs.indexOf(o));break;case\\\"index\\\":n=n.replace(l,\\\"index\\\");break;case\\\"shape\\\":n=n.replace(l,\\\"shape\\\")}}}return[i.join(\\\"\\\\n\\\"),n,a.join(\\\"\\\\n\\\")].join(\\\"\\\\n\\\").trim()}e.exports=function(t,e){for(var r=e[1].length-Math.abs(t.arrayBlockIndices[0])|0,o=new Array(t.arrayArgs.length),s=new Array(t.arrayArgs.length),l=0;l<t.arrayArgs.length;++l)s[l]=e[2*l],o[l]=e[2*l+1];var c=[],u=[],f=[],h=[],p=[];for(l=0;l<t.arrayArgs.length;++l){t.arrayBlockIndices[l]<0?(f.push(0),h.push(r),c.push(r),u.push(r+t.arrayBlockIndices[l])):(f.push(t.arrayBlockIndices[l]),h.push(t.arrayBlockIndices[l]+r),c.push(0),u.push(t.arrayBlockIndices[l]));for(var d=[],g=0;g<o[l].length;g++)f[l]<=o[l][g]&&o[l][g]<h[l]&&d.push(o[l][g]-f[l]);p.push(d)}var v=[\\\"SS\\\"],m=[\\\"'use strict'\\\"],y=[];for(g=0;g<r;++g)y.push([\\\"s\\\",g,\\\"=SS[\\\",g,\\\"]\\\"].join(\\\"\\\"));for(l=0;l<t.arrayArgs.length;++l){for(v.push(\\\"a\\\"+l),v.push(\\\"t\\\"+l),v.push(\\\"p\\\"+l),g=0;g<r;++g)y.push([\\\"t\\\",l,\\\"p\\\",g,\\\"=t\\\",l,\\\"[\\\",f[l]+g,\\\"]\\\"].join(\\\"\\\"));for(g=0;g<Math.abs(t.arrayBlockIndices[l]);++g)y.push([\\\"t\\\",l,\\\"b\\\",g,\\\"=t\\\",l,\\\"[\\\",c[l]+g,\\\"]\\\"].join(\\\"\\\"))}for(l=0;l<t.scalarArgs.length;++l)v.push(\\\"Y\\\"+l);if(t.shapeArgs.length>0&&y.push(\\\"shape=SS.slice(0)\\\"),t.indexArgs.length>0){var x=new Array(r);for(l=0;l<r;++l)x[l]=\\\"0\\\";y.push([\\\"index=[\\\",x.join(\\\",\\\"),\\\"]\\\"].join(\\\"\\\"))}for(l=0;l<t.offsetArgs.length;++l){var b=t.offsetArgs[l],_=[];for(g=0;g<b.offset.length;++g)0!==b.offset[g]&&(1===b.offset[g]?_.push([\\\"t\\\",b.array,\\\"p\\\",g].join(\\\"\\\")):_.push([b.offset[g],\\\"*t\\\",b.array,\\\"p\\\",g].join(\\\"\\\")));0===_.length?y.push(\\\"q\\\"+l+\\\"=0\\\"):y.push([\\\"q\\\",l,\\\"=\\\",_.join(\\\"+\\\")].join(\\\"\\\"))}var w=n([].concat(t.pre.thisVars).concat(t.body.thisVars).concat(t.post.thisVars));for((y=y.concat(w)).length>0&&m.push(\\\"var \\\"+y.join(\\\",\\\")),l=0;l<t.arrayArgs.length;++l)m.push(\\\"p\\\"+l+\\\"|=0\\\");t.pre.body.length>3&&m.push(a(t.pre,t,s));var k=a(t.body,t,s),T=function(t){for(var e=0,r=t[0].length;e<r;){for(var n=1;n<t.length;++n)if(t[n][e]!==t[0][e])return e;++e}return e}(p);T<r?m.push(function(t,e,r,n){for(var a=e.length,o=r.arrayArgs.length,s=r.blockSize,l=r.indexArgs.length>0,c=[],u=0;u<o;++u)c.push([\\\"var offset\\\",u,\\\"=p\\\",u].join(\\\"\\\"));for(u=t;u<a;++u)c.push([\\\"for(var j\\\"+u+\\\"=SS[\\\",e[u],\\\"]|0;j\\\",u,\\\">0;){\\\"].join(\\\"\\\")),c.push([\\\"if(j\\\",u,\\\"<\\\",s,\\\"){\\\"].join(\\\"\\\")),c.push([\\\"s\\\",e[u],\\\"=j\\\",u].join(\\\"\\\")),c.push([\\\"j\\\",u,\\\"=0\\\"].join(\\\"\\\")),c.push([\\\"}else{s\\\",e[u],\\\"=\\\",s].join(\\\"\\\")),c.push([\\\"j\\\",u,\\\"-=\\\",s,\\\"}\\\"].join(\\\"\\\")),l&&c.push([\\\"index[\\\",e[u],\\\"]=j\\\",u].join(\\\"\\\"));for(u=0;u<o;++u){for(var f=[\\\"offset\\\"+u],h=t;h<a;++h)f.push([\\\"j\\\",h,\\\"*t\\\",u,\\\"p\\\",e[h]].join(\\\"\\\"));c.push([\\\"p\\\",u,\\\"=(\\\",f.join(\\\"+\\\"),\\\")\\\"].join(\\\"\\\"))}for(c.push(i(e,r,n)),u=t;u<a;++u)c.push(\\\"}\\\");return c.join(\\\"\\\\n\\\")}(T,p[0],t,k)):m.push(i(p[0],t,k)),t.post.body.length>3&&m.push(a(t.post,t,s)),t.debug&&console.log(\\\"-----Generated cwise routine for \\\",e,\\\":\\\\n\\\"+m.join(\\\"\\\\n\\\")+\\\"\\\\n----------\\\");var A=[t.funcName||\\\"unnamed\\\",\\\"_cwise_loop_\\\",o[0].join(\\\"s\\\"),\\\"m\\\",T,function(t){for(var e=new Array(t.length),r=!0,n=0;n<t.length;++n){var i=t[n],a=i.match(/\\\\d+/);a=a?a[0]:\\\"\\\",0===i.charAt(0)?e[n]=\\\"u\\\"+i.charAt(1)+a:e[n]=i.charAt(0)+a,n>0&&(r=r&&e[n]===e[n-1])}return r?e[0]:e.join(\\\"\\\")}(s)].join(\\\"\\\");return new Function([\\\"function \\\",A,\\\"(\\\",v.join(\\\",\\\"),\\\"){\\\",m.join(\\\"\\\\n\\\"),\\\"} return \\\",A].join(\\\"\\\"))()}},{uniq:534}],141:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./compile.js\\\");e.exports=function(t){var e=[\\\"'use strict'\\\",\\\"var CACHED={}\\\"],r=[],i=t.funcName+\\\"_cwise_thunk\\\";e.push([\\\"return function \\\",i,\\\"(\\\",t.shimArgs.join(\\\",\\\"),\\\"){\\\"].join(\\\"\\\"));for(var a=[],o=[],s=[[\\\"array\\\",t.arrayArgs[0],\\\".shape.slice(\\\",Math.max(0,t.arrayBlockIndices[0]),t.arrayBlockIndices[0]<0?\\\",\\\"+t.arrayBlockIndices[0]+\\\")\\\":\\\")\\\"].join(\\\"\\\")],l=[],c=[],u=0;u<t.arrayArgs.length;++u){var f=t.arrayArgs[u];r.push([\\\"t\\\",f,\\\"=array\\\",f,\\\".dtype,\\\",\\\"r\\\",f,\\\"=array\\\",f,\\\".order\\\"].join(\\\"\\\")),a.push(\\\"t\\\"+f),a.push(\\\"r\\\"+f),o.push(\\\"t\\\"+f),o.push(\\\"r\\\"+f+\\\".join()\\\"),s.push(\\\"array\\\"+f+\\\".data\\\"),s.push(\\\"array\\\"+f+\\\".stride\\\"),s.push(\\\"array\\\"+f+\\\".offset|0\\\"),u>0&&(l.push(\\\"array\\\"+t.arrayArgs[0]+\\\".shape.length===array\\\"+f+\\\".shape.length+\\\"+(Math.abs(t.arrayBlockIndices[0])-Math.abs(t.arrayBlockIndices[u]))),c.push(\\\"array\\\"+t.arrayArgs[0]+\\\".shape[shapeIndex+\\\"+Math.max(0,t.arrayBlockIndices[0])+\\\"]===array\\\"+f+\\\".shape[shapeIndex+\\\"+Math.max(0,t.arrayBlockIndices[u])+\\\"]\\\"))}for(t.arrayArgs.length>1&&(e.push(\\\"if (!(\\\"+l.join(\\\" && \\\")+\\\")) throw new Error('cwise: Arrays do not all have the same dimensionality!')\\\"),e.push(\\\"for(var shapeIndex=array\\\"+t.arrayArgs[0]+\\\".shape.length-\\\"+Math.abs(t.arrayBlockIndices[0])+\\\"; shapeIndex--\\\\x3e0;) {\\\"),e.push(\\\"if (!(\\\"+c.join(\\\" && \\\")+\\\")) throw new Error('cwise: Arrays do not all have the same shape!')\\\"),e.push(\\\"}\\\")),u=0;u<t.scalarArgs.length;++u)s.push(\\\"scalar\\\"+t.scalarArgs[u]);return r.push([\\\"type=[\\\",o.join(\\\",\\\"),\\\"].join()\\\"].join(\\\"\\\")),r.push(\\\"proc=CACHED[type]\\\"),e.push(\\\"var \\\"+r.join(\\\",\\\")),e.push([\\\"if(!proc){\\\",\\\"CACHED[type]=proc=compile([\\\",a.join(\\\",\\\"),\\\"])}\\\",\\\"return proc(\\\",s.join(\\\",\\\"),\\\")}\\\"].join(\\\"\\\")),t.debug&&console.log(\\\"-----Generated thunk:\\\\n\\\"+e.join(\\\"\\\\n\\\")+\\\"\\\\n----------\\\"),new Function(\\\"compile\\\",e.join(\\\"\\\\n\\\"))(n.bind(void 0,t))}},{\\\"./compile.js\\\":140}],142:[function(t,e,r){e.exports=t(\\\"cwise-compiler\\\")},{\\\"cwise-compiler\\\":139}],143:[function(t,e,r){\\\"use strict\\\";var n,i=t(\\\"es5-ext/object/copy\\\"),a=t(\\\"es5-ext/object/normalize-options\\\"),o=t(\\\"es5-ext/object/valid-callable\\\"),s=t(\\\"es5-ext/object/map\\\"),l=t(\\\"es5-ext/object/valid-callable\\\"),c=t(\\\"es5-ext/object/valid-value\\\"),u=Function.prototype.bind,f=Object.defineProperty,h=Object.prototype.hasOwnProperty;n=function(t,e,r){var n,a=c(e)&&l(e.value);return delete(n=i(e)).writable,delete n.value,n.get=function(){return!r.overwriteDefinition&&h.call(this,t)?a:(e.value=u.call(a,r.resolveContext?r.resolveContext(this):this),f(this,t,e),this[t])},n},e.exports=function(t){var e=a(arguments[1]);return null!=e.resolveContext&&o(e.resolveContext),s(t,function(t,r){return n(r,t,e)})}},{\\\"es5-ext/object/copy\\\":184,\\\"es5-ext/object/map\\\":193,\\\"es5-ext/object/normalize-options\\\":194,\\\"es5-ext/object/valid-callable\\\":198,\\\"es5-ext/object/valid-value\\\":200}],144:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"es5-ext/object/assign\\\"),i=t(\\\"es5-ext/object/normalize-options\\\"),a=t(\\\"es5-ext/object/is-callable\\\"),o=t(\\\"es5-ext/string/#/contains\\\");(e.exports=function(t,e){var r,a,s,l,c;return arguments.length<2||\\\"string\\\"!=typeof t?(l=e,e=t,t=null):l=arguments[2],null==t?(r=s=!0,a=!1):(r=o.call(t,\\\"c\\\"),a=o.call(t,\\\"e\\\"),s=o.call(t,\\\"w\\\")),c={value:e,configurable:r,enumerable:a,writable:s},l?n(i(l),c):c}).gs=function(t,e,r){var s,l,c,u;return\\\"string\\\"!=typeof t?(c=r,r=e,e=t,t=null):c=arguments[3],null==e?e=void 0:a(e)?null==r?r=void 0:a(r)||(c=r,r=void 0):(c=e,e=r=void 0),null==t?(s=!0,l=!1):(s=o.call(t,\\\"c\\\"),l=o.call(t,\\\"e\\\")),u={get:e,set:r,configurable:s,enumerable:l},c?n(i(c),u):u}},{\\\"es5-ext/object/assign\\\":181,\\\"es5-ext/object/is-callable\\\":187,\\\"es5-ext/object/normalize-options\\\":194,\\\"es5-ext/string/#/contains\\\":201}],145:[function(t,e,r){var n;n=this,function(t){\\\"use strict\\\";function e(t,e){return t<e?-1:t>e?1:t>=e?0:NaN}function r(t){var r;return 1===t.length&&(r=t,t=function(t,n){return e(r(t),n)}),{left:function(e,r,n,i){for(null==n&&(n=0),null==i&&(i=e.length);n<i;){var a=n+i>>>1;t(e[a],r)<0?n=a+1:i=a}return n},right:function(e,r,n,i){for(null==n&&(n=0),null==i&&(i=e.length);n<i;){var a=n+i>>>1;t(e[a],r)>0?i=a:n=a+1}return n}}}var n=r(e),i=n.right,a=n.left;function o(t,e){return[t,e]}function s(t){return null===t?NaN:+t}function l(t,e){var r,n,i=t.length,a=0,o=-1,l=0,c=0;if(null==e)for(;++o<i;)isNaN(r=s(t[o]))||(c+=(n=r-l)*(r-(l+=n/++a)));else for(;++o<i;)isNaN(r=s(e(t[o],o,t)))||(c+=(n=r-l)*(r-(l+=n/++a)));if(a>1)return c/(a-1)}function c(t,e){var r=l(t,e);return r?Math.sqrt(r):r}function u(t,e){var r,n,i,a=t.length,o=-1;if(null==e){for(;++o<a;)if(null!=(r=t[o])&&r>=r)for(n=i=r;++o<a;)null!=(r=t[o])&&(n>r&&(n=r),i<r&&(i=r))}else for(;++o<a;)if(null!=(r=e(t[o],o,t))&&r>=r)for(n=i=r;++o<a;)null!=(r=e(t[o],o,t))&&(n>r&&(n=r),i<r&&(i=r));return[n,i]}var f=Array.prototype,h=f.slice,p=f.map;function d(t){return function(){return t}}function g(t){return t}function v(t,e,r){t=+t,e=+e,r=(i=arguments.length)<2?(e=t,t=0,1):i<3?1:+r;for(var n=-1,i=0|Math.max(0,Math.ceil((e-t)/r)),a=new Array(i);++n<i;)a[n]=t+n*r;return a}var m=Math.sqrt(50),y=Math.sqrt(10),x=Math.sqrt(2);function b(t,e,r){var n=(e-t)/Math.max(0,r),i=Math.floor(Math.log(n)/Math.LN10),a=n/Math.pow(10,i);return i>=0?(a>=m?10:a>=y?5:a>=x?2:1)*Math.pow(10,i):-Math.pow(10,-i)/(a>=m?10:a>=y?5:a>=x?2:1)}function _(t,e,r){var n=Math.abs(e-t)/Math.max(0,r),i=Math.pow(10,Math.floor(Math.log(n)/Math.LN10)),a=n/i;return a>=m?i*=10:a>=y?i*=5:a>=x&&(i*=2),e<t?-i:i}function w(t){return Math.ceil(Math.log(t.length)/Math.LN2)+1}function k(t,e,r){if(null==r&&(r=s),n=t.length){if((e=+e)<=0||n<2)return+r(t[0],0,t);if(e>=1)return+r(t[n-1],n-1,t);var n,i=(n-1)*e,a=Math.floor(i),o=+r(t[a],a,t);return o+(+r(t[a+1],a+1,t)-o)*(i-a)}}function T(t,e){var r,n,i=t.length,a=-1;if(null==e){for(;++a<i;)if(null!=(r=t[a])&&r>=r)for(n=r;++a<i;)null!=(r=t[a])&&n>r&&(n=r)}else for(;++a<i;)if(null!=(r=e(t[a],a,t))&&r>=r)for(n=r;++a<i;)null!=(r=e(t[a],a,t))&&n>r&&(n=r);return n}function A(t){if(!(i=t.length))return[];for(var e=-1,r=T(t,M),n=new Array(r);++e<r;)for(var i,a=-1,o=n[e]=new Array(i);++a<i;)o[a]=t[a][e];return n}function M(t){return t.length}t.bisect=i,t.bisectRight=i,t.bisectLeft=a,t.ascending=e,t.bisector=r,t.cross=function(t,e,r){var n,i,a,s,l=t.length,c=e.length,u=new Array(l*c);for(null==r&&(r=o),n=a=0;n<l;++n)for(s=t[n],i=0;i<c;++i,++a)u[a]=r(s,e[i]);return u},t.descending=function(t,e){return e<t?-1:e>t?1:e>=t?0:NaN},t.deviation=c,t.extent=u,t.histogram=function(){var t=g,e=u,r=w;function n(n){var a,o,s=n.length,l=new Array(s);for(a=0;a<s;++a)l[a]=t(n[a],a,n);var c=e(l),u=c[0],f=c[1],h=r(l,u,f);Array.isArray(h)||(h=_(u,f,h),h=v(Math.ceil(u/h)*h,f,h));for(var p=h.length;h[0]<=u;)h.shift(),--p;for(;h[p-1]>f;)h.pop(),--p;var d,g=new Array(p+1);for(a=0;a<=p;++a)(d=g[a]=[]).x0=a>0?h[a-1]:u,d.x1=a<p?h[a]:f;for(a=0;a<s;++a)u<=(o=l[a])&&o<=f&&g[i(h,o,0,p)].push(n[a]);return g}return n.value=function(e){return arguments.length?(t=\\\"function\\\"==typeof e?e:d(e),n):t},n.domain=function(t){return arguments.length?(e=\\\"function\\\"==typeof t?t:d([t[0],t[1]]),n):e},n.thresholds=function(t){return arguments.length?(r=\\\"function\\\"==typeof t?t:Array.isArray(t)?d(h.call(t)):d(t),n):r},n},t.thresholdFreedmanDiaconis=function(t,r,n){return t=p.call(t,s).sort(e),Math.ceil((n-r)/(2*(k(t,.75)-k(t,.25))*Math.pow(t.length,-1/3)))},t.thresholdScott=function(t,e,r){return Math.ceil((r-e)/(3.5*c(t)*Math.pow(t.length,-1/3)))},t.thresholdSturges=w,t.max=function(t,e){var r,n,i=t.length,a=-1;if(null==e){for(;++a<i;)if(null!=(r=t[a])&&r>=r)for(n=r;++a<i;)null!=(r=t[a])&&r>n&&(n=r)}else for(;++a<i;)if(null!=(r=e(t[a],a,t))&&r>=r)for(n=r;++a<i;)null!=(r=e(t[a],a,t))&&r>n&&(n=r);return n},t.mean=function(t,e){var r,n=t.length,i=n,a=-1,o=0;if(null==e)for(;++a<n;)isNaN(r=s(t[a]))?--i:o+=r;else for(;++a<n;)isNaN(r=s(e(t[a],a,t)))?--i:o+=r;if(i)return o/i},t.median=function(t,r){var n,i=t.length,a=-1,o=[];if(null==r)for(;++a<i;)isNaN(n=s(t[a]))||o.push(n);else for(;++a<i;)isNaN(n=s(r(t[a],a,t)))||o.push(n);return k(o.sort(e),.5)},t.merge=function(t){for(var e,r,n,i=t.length,a=-1,o=0;++a<i;)o+=t[a].length;for(r=new Array(o);--i>=0;)for(e=(n=t[i]).length;--e>=0;)r[--o]=n[e];return r},t.min=T,t.pairs=function(t,e){null==e&&(e=o);for(var r=0,n=t.length-1,i=t[0],a=new Array(n<0?0:n);r<n;)a[r]=e(i,i=t[++r]);return a},t.permute=function(t,e){for(var r=e.length,n=new Array(r);r--;)n[r]=t[e[r]];return n},t.quantile=k,t.range=v,t.scan=function(t,r){if(n=t.length){var n,i,a=0,o=0,s=t[o];for(null==r&&(r=e);++a<n;)(r(i=t[a],s)<0||0!==r(s,s))&&(s=i,o=a);return 0===r(s,s)?o:void 0}},t.shuffle=function(t,e,r){for(var n,i,a=(null==r?t.length:r)-(e=null==e?0:+e);a;)i=Math.random()*a--|0,n=t[a+e],t[a+e]=t[i+e],t[i+e]=n;return t},t.sum=function(t,e){var r,n=t.length,i=-1,a=0;if(null==e)for(;++i<n;)(r=+t[i])&&(a+=r);else for(;++i<n;)(r=+e(t[i],i,t))&&(a+=r);return a},t.ticks=function(t,e,r){var n,i,a,o,s=-1;if(r=+r,(t=+t)==(e=+e)&&r>0)return[t];if((n=e<t)&&(i=t,t=e,e=i),0===(o=b(t,e,r))||!isFinite(o))return[];if(o>0)for(t=Math.ceil(t/o),e=Math.floor(e/o),a=new Array(i=Math.ceil(e-t+1));++s<i;)a[s]=(t+s)*o;else for(t=Math.floor(t*o),e=Math.ceil(e*o),a=new Array(i=Math.ceil(t-e+1));++s<i;)a[s]=(t-s)/o;return n&&a.reverse(),a},t.tickIncrement=b,t.tickStep=_,t.transpose=A,t.variance=l,t.zip=function(){return A(arguments)},Object.defineProperty(t,\\\"__esModule\\\",{value:!0})}(\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?r:n.d3=n.d3||{})},{}],146:[function(t,e,r){var n;n=this,function(t){\\\"use strict\\\";function e(){}function r(t,r){var n=new e;if(t instanceof e)t.each(function(t,e){n.set(e,t)});else if(Array.isArray(t)){var i,a=-1,o=t.length;if(null==r)for(;++a<o;)n.set(a,t[a]);else for(;++a<o;)n.set(r(i=t[a],a,t),i)}else if(t)for(var s in t)n.set(s,t[s]);return n}e.prototype=r.prototype={constructor:e,has:function(t){return\\\"$\\\"+t in this},get:function(t){return this[\\\"$\\\"+t]},set:function(t,e){return this[\\\"$\\\"+t]=e,this},remove:function(t){var e=\\\"$\\\"+t;return e in this&&delete this[e]},clear:function(){for(var t in this)\\\"$\\\"===t[0]&&delete this[t]},keys:function(){var t=[];for(var e in this)\\\"$\\\"===e[0]&&t.push(e.slice(1));return t},values:function(){var t=[];for(var e in this)\\\"$\\\"===e[0]&&t.push(this[e]);return t},entries:function(){var t=[];for(var e in this)\\\"$\\\"===e[0]&&t.push({key:e.slice(1),value:this[e]});return t},size:function(){var t=0;for(var e in this)\\\"$\\\"===e[0]&&++t;return t},empty:function(){for(var t in this)if(\\\"$\\\"===t[0])return!1;return!0},each:function(t){for(var e in this)\\\"$\\\"===e[0]&&t(this[e],e.slice(1),this)}};function n(){return{}}function i(t,e,r){t[e]=r}function a(){return r()}function o(t,e,r){t.set(e,r)}function s(){}var l=r.prototype;function c(t,e){var r=new s;if(t instanceof s)t.each(function(t){r.add(t)});else if(t){var n=-1,i=t.length;if(null==e)for(;++n<i;)r.add(t[n]);else for(;++n<i;)r.add(e(t[n],n,t))}return r}s.prototype=c.prototype={constructor:s,has:l.has,add:function(t){return this[\\\"$\\\"+(t+=\\\"\\\")]=t,this},remove:l.remove,clear:l.clear,values:l.keys,size:l.size,empty:l.empty,each:l.each};t.nest=function(){var t,e,s,l=[],c=[];function u(n,i,a,o){if(i>=l.length)return null!=t&&n.sort(t),null!=e?e(n):n;for(var s,c,f,h=-1,p=n.length,d=l[i++],g=r(),v=a();++h<p;)(f=g.get(s=d(c=n[h])+\\\"\\\"))?f.push(c):g.set(s,[c]);return g.each(function(t,e){o(v,e,u(t,i,a,o))}),v}return s={object:function(t){return u(t,0,n,i)},map:function(t){return u(t,0,a,o)},entries:function(t){return function t(r,n){if(++n>l.length)return r;var i,a=c[n-1];return null!=e&&n>=l.length?i=r.entries():(i=[],r.each(function(e,r){i.push({key:r,values:t(e,n)})})),null!=a?i.sort(function(t,e){return a(t.key,e.key)}):i}(u(t,0,a,o),0)},key:function(t){return l.push(t),s},sortKeys:function(t){return c[l.length-1]=t,s},sortValues:function(e){return t=e,s},rollup:function(t){return e=t,s}}},t.set=c,t.map=r,t.keys=function(t){var e=[];for(var r in t)e.push(r);return e},t.values=function(t){var e=[];for(var r in t)e.push(t[r]);return e},t.entries=function(t){var e=[];for(var r in t)e.push({key:r,value:t[r]});return e},Object.defineProperty(t,\\\"__esModule\\\",{value:!0})}(\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?r:n.d3=n.d3||{})},{}],147:[function(t,e,r){var n;n=this,function(t){\\\"use strict\\\";function e(t,e,r){t.prototype=e.prototype=r,r.constructor=t}function r(t,e){var r=Object.create(t.prototype);for(var n in e)r[n]=e[n];return r}function n(){}var i=\\\"\\\\\\\\s*([+-]?\\\\\\\\d+)\\\\\\\\s*\\\",a=\\\"\\\\\\\\s*([+-]?\\\\\\\\d*\\\\\\\\.?\\\\\\\\d+(?:[eE][+-]?\\\\\\\\d+)?)\\\\\\\\s*\\\",o=\\\"\\\\\\\\s*([+-]?\\\\\\\\d*\\\\\\\\.?\\\\\\\\d+(?:[eE][+-]?\\\\\\\\d+)?)%\\\\\\\\s*\\\",s=/^#([0-9a-f]{3})$/,l=/^#([0-9a-f]{6})$/,c=new RegExp(\\\"^rgb\\\\\\\\(\\\"+[i,i,i]+\\\"\\\\\\\\)$\\\"),u=new RegExp(\\\"^rgb\\\\\\\\(\\\"+[o,o,o]+\\\"\\\\\\\\)$\\\"),f=new RegExp(\\\"^rgba\\\\\\\\(\\\"+[i,i,i,a]+\\\"\\\\\\\\)$\\\"),h=new RegExp(\\\"^rgba\\\\\\\\(\\\"+[o,o,o,a]+\\\"\\\\\\\\)$\\\"),p=new RegExp(\\\"^hsl\\\\\\\\(\\\"+[a,o,o]+\\\"\\\\\\\\)$\\\"),d=new RegExp(\\\"^hsla\\\\\\\\(\\\"+[a,o,o,a]+\\\"\\\\\\\\)$\\\"),g={aliceblue:15792383,antiquewhite:16444375,aqua:65535,aquamarine:8388564,azure:15794175,beige:16119260,bisque:16770244,black:0,blanchedalmond:16772045,blue:255,blueviolet:9055202,brown:10824234,burlywood:14596231,cadetblue:6266528,chartreuse:8388352,chocolate:13789470,coral:16744272,cornflowerblue:6591981,cornsilk:16775388,crimson:14423100,cyan:65535,darkblue:139,darkcyan:35723,darkgoldenrod:12092939,darkgray:11119017,darkgreen:25600,darkgrey:11119017,darkkhaki:12433259,darkmagenta:9109643,darkolivegreen:5597999,darkorange:16747520,darkorchid:10040012,darkred:9109504,darksalmon:15308410,darkseagreen:9419919,darkslateblue:4734347,darkslategray:3100495,darkslategrey:3100495,darkturquoise:52945,darkviolet:9699539,deeppink:16716947,deepskyblue:49151,dimgray:6908265,dimgrey:6908265,dodgerblue:2003199,firebrick:11674146,floralwhite:16775920,forestgreen:2263842,fuchsia:16711935,gainsboro:14474460,ghostwhite:16316671,gold:16766720,goldenrod:14329120,gray:8421504,green:32768,greenyellow:11403055,grey:8421504,honeydew:15794160,hotpink:16738740,indianred:13458524,indigo:4915330,ivory:16777200,khaki:15787660,lavender:15132410,lavenderblush:16773365,lawngreen:8190976,lemonchiffon:16775885,lightblue:11393254,lightcoral:15761536,lightcyan:14745599,lightgoldenrodyellow:16448210,lightgray:13882323,lightgreen:9498256,lightgrey:13882323,lightpink:16758465,lightsalmon:16752762,lightseagreen:2142890,lightskyblue:8900346,lightslategray:7833753,lightslategrey:7833753,lightsteelblue:11584734,lightyellow:16777184,lime:65280,limegreen:3329330,linen:16445670,magenta:16711935,maroon:8388608,mediumaquamarine:6737322,mediumblue:205,mediumorchid:12211667,mediumpurple:9662683,mediumseagreen:3978097,mediumslateblue:8087790,mediumspringgreen:64154,mediumturquoise:4772300,mediumvioletred:13047173,midnightblue:1644912,mintcream:16121850,mistyrose:16770273,moccasin:16770229,navajowhite:16768685,navy:128,oldlace:16643558,olive:8421376,olivedrab:7048739,orange:16753920,orangered:16729344,orchid:14315734,palegoldenrod:15657130,palegreen:10025880,paleturquoise:11529966,palevioletred:14381203,papayawhip:16773077,peachpuff:16767673,peru:13468991,pink:16761035,plum:14524637,powderblue:11591910,purple:8388736,rebeccapurple:6697881,red:16711680,rosybrown:12357519,royalblue:4286945,saddlebrown:9127187,salmon:16416882,sandybrown:16032864,seagreen:3050327,seashell:16774638,sienna:10506797,silver:12632256,skyblue:8900331,slateblue:6970061,slategray:7372944,slategrey:7372944,snow:16775930,springgreen:65407,steelblue:4620980,tan:13808780,teal:32896,thistle:14204888,tomato:16737095,turquoise:4251856,violet:15631086,wheat:16113331,white:16777215,whitesmoke:16119285,yellow:16776960,yellowgreen:10145074};function v(t){var e;return t=(t+\\\"\\\").trim().toLowerCase(),(e=s.exec(t))?new _((e=parseInt(e[1],16))>>8&15|e>>4&240,e>>4&15|240&e,(15&e)<<4|15&e,1):(e=l.exec(t))?m(parseInt(e[1],16)):(e=c.exec(t))?new _(e[1],e[2],e[3],1):(e=u.exec(t))?new _(255*e[1]/100,255*e[2]/100,255*e[3]/100,1):(e=f.exec(t))?y(e[1],e[2],e[3],e[4]):(e=h.exec(t))?y(255*e[1]/100,255*e[2]/100,255*e[3]/100,e[4]):(e=p.exec(t))?k(e[1],e[2]/100,e[3]/100,1):(e=d.exec(t))?k(e[1],e[2]/100,e[3]/100,e[4]):g.hasOwnProperty(t)?m(g[t]):\\\"transparent\\\"===t?new _(NaN,NaN,NaN,0):null}function m(t){return new _(t>>16&255,t>>8&255,255&t,1)}function y(t,e,r,n){return n<=0&&(t=e=r=NaN),new _(t,e,r,n)}function x(t){return t instanceof n||(t=v(t)),t?new _((t=t.rgb()).r,t.g,t.b,t.opacity):new _}function b(t,e,r,n){return 1===arguments.length?x(t):new _(t,e,r,null==n?1:n)}function _(t,e,r,n){this.r=+t,this.g=+e,this.b=+r,this.opacity=+n}function w(t){return((t=Math.max(0,Math.min(255,Math.round(t)||0)))<16?\\\"0\\\":\\\"\\\")+t.toString(16)}function k(t,e,r,n){return n<=0?t=e=r=NaN:r<=0||r>=1?t=e=NaN:e<=0&&(t=NaN),new A(t,e,r,n)}function T(t,e,r,i){return 1===arguments.length?function(t){if(t instanceof A)return new A(t.h,t.s,t.l,t.opacity);if(t instanceof n||(t=v(t)),!t)return new A;if(t instanceof A)return t;var e=(t=t.rgb()).r/255,r=t.g/255,i=t.b/255,a=Math.min(e,r,i),o=Math.max(e,r,i),s=NaN,l=o-a,c=(o+a)/2;return l?(s=e===o?(r-i)/l+6*(r<i):r===o?(i-e)/l+2:(e-r)/l+4,l/=c<.5?o+a:2-o-a,s*=60):l=c>0&&c<1?0:s,new A(s,l,c,t.opacity)}(t):new A(t,e,r,null==i?1:i)}function A(t,e,r,n){this.h=+t,this.s=+e,this.l=+r,this.opacity=+n}function M(t,e,r){return 255*(t<60?e+(r-e)*t/60:t<180?r:t<240?e+(r-e)*(240-t)/60:e)}e(n,v,{displayable:function(){return this.rgb().displayable()},hex:function(){return this.rgb().hex()},toString:function(){return this.rgb()+\\\"\\\"}}),e(_,b,r(n,{brighter:function(t){return t=null==t?1/.7:Math.pow(1/.7,t),new _(this.r*t,this.g*t,this.b*t,this.opacity)},darker:function(t){return t=null==t?.7:Math.pow(.7,t),new _(this.r*t,this.g*t,this.b*t,this.opacity)},rgb:function(){return this},displayable:function(){return 0<=this.r&&this.r<=255&&0<=this.g&&this.g<=255&&0<=this.b&&this.b<=255&&0<=this.opacity&&this.opacity<=1},hex:function(){return\\\"#\\\"+w(this.r)+w(this.g)+w(this.b)},toString:function(){var t=this.opacity;return(1===(t=isNaN(t)?1:Math.max(0,Math.min(1,t)))?\\\"rgb(\\\":\\\"rgba(\\\")+Math.max(0,Math.min(255,Math.round(this.r)||0))+\\\", \\\"+Math.max(0,Math.min(255,Math.round(this.g)||0))+\\\", \\\"+Math.max(0,Math.min(255,Math.round(this.b)||0))+(1===t?\\\")\\\":\\\", \\\"+t+\\\")\\\")}})),e(A,T,r(n,{brighter:function(t){return t=null==t?1/.7:Math.pow(1/.7,t),new A(this.h,this.s,this.l*t,this.opacity)},darker:function(t){return t=null==t?.7:Math.pow(.7,t),new A(this.h,this.s,this.l*t,this.opacity)},rgb:function(){var t=this.h%360+360*(this.h<0),e=isNaN(t)||isNaN(this.s)?0:this.s,r=this.l,n=r+(r<.5?r:1-r)*e,i=2*r-n;return new _(M(t>=240?t-240:t+120,i,n),M(t,i,n),M(t<120?t+240:t-120,i,n),this.opacity)},displayable:function(){return(0<=this.s&&this.s<=1||isNaN(this.s))&&0<=this.l&&this.l<=1&&0<=this.opacity&&this.opacity<=1}}));var S=Math.PI/180,E=180/Math.PI,C=.96422,L=1,z=.82521,O=4/29,I=6/29,D=3*I*I,P=I*I*I;function R(t){if(t instanceof B)return new B(t.l,t.a,t.b,t.opacity);if(t instanceof G){if(isNaN(t.h))return new B(t.l,0,0,t.opacity);var e=t.h*S;return new B(t.l,Math.cos(e)*t.c,Math.sin(e)*t.c,t.opacity)}t instanceof _||(t=x(t));var r,n,i=U(t.r),a=U(t.g),o=U(t.b),s=N((.2225045*i+.7168786*a+.0606169*o)/L);return i===a&&a===o?r=n=s:(r=N((.4360747*i+.3850649*a+.1430804*o)/C),n=N((.0139322*i+.0971045*a+.7141733*o)/z)),new B(116*s-16,500*(r-s),200*(s-n),t.opacity)}function F(t,e,r,n){return 1===arguments.length?R(t):new B(t,e,r,null==n?1:n)}function B(t,e,r,n){this.l=+t,this.a=+e,this.b=+r,this.opacity=+n}function N(t){return t>P?Math.pow(t,1/3):t/D+O}function j(t){return t>I?t*t*t:D*(t-O)}function V(t){return 255*(t<=.0031308?12.92*t:1.055*Math.pow(t,1/2.4)-.055)}function U(t){return(t/=255)<=.04045?t/12.92:Math.pow((t+.055)/1.055,2.4)}function H(t){if(t instanceof G)return new G(t.h,t.c,t.l,t.opacity);if(t instanceof B||(t=R(t)),0===t.a&&0===t.b)return new G(NaN,0,t.l,t.opacity);var e=Math.atan2(t.b,t.a)*E;return new G(e<0?e+360:e,Math.sqrt(t.a*t.a+t.b*t.b),t.l,t.opacity)}function q(t,e,r,n){return 1===arguments.length?H(t):new G(t,e,r,null==n?1:n)}function G(t,e,r,n){this.h=+t,this.c=+e,this.l=+r,this.opacity=+n}e(B,F,r(n,{brighter:function(t){return new B(this.l+18*(null==t?1:t),this.a,this.b,this.opacity)},darker:function(t){return new B(this.l-18*(null==t?1:t),this.a,this.b,this.opacity)},rgb:function(){var t=(this.l+16)/116,e=isNaN(this.a)?t:t+this.a/500,r=isNaN(this.b)?t:t-this.b/200;return new _(V(3.1338561*(e=C*j(e))-1.6168667*(t=L*j(t))-.4906146*(r=z*j(r))),V(-.9787684*e+1.9161415*t+.033454*r),V(.0719453*e-.2289914*t+1.4052427*r),this.opacity)}})),e(G,q,r(n,{brighter:function(t){return new G(this.h,this.c,this.l+18*(null==t?1:t),this.opacity)},darker:function(t){return new G(this.h,this.c,this.l-18*(null==t?1:t),this.opacity)},rgb:function(){return R(this).rgb()}}));var Y=-.14861,W=1.78277,X=-.29227,Z=-.90649,$=1.97294,J=$*Z,K=$*W,Q=W*X-Z*Y;function tt(t,e,r,n){return 1===arguments.length?function(t){if(t instanceof et)return new et(t.h,t.s,t.l,t.opacity);t instanceof _||(t=x(t));var e=t.r/255,r=t.g/255,n=t.b/255,i=(Q*n+J*e-K*r)/(Q+J-K),a=n-i,o=($*(r-i)-X*a)/Z,s=Math.sqrt(o*o+a*a)/($*i*(1-i)),l=s?Math.atan2(o,a)*E-120:NaN;return new et(l<0?l+360:l,s,i,t.opacity)}(t):new et(t,e,r,null==n?1:n)}function et(t,e,r,n){this.h=+t,this.s=+e,this.l=+r,this.opacity=+n}e(et,tt,r(n,{brighter:function(t){return t=null==t?1/.7:Math.pow(1/.7,t),new et(this.h,this.s,this.l*t,this.opacity)},darker:function(t){return t=null==t?.7:Math.pow(.7,t),new et(this.h,this.s,this.l*t,this.opacity)},rgb:function(){var t=isNaN(this.h)?0:(this.h+120)*S,e=+this.l,r=isNaN(this.s)?0:this.s*e*(1-e),n=Math.cos(t),i=Math.sin(t);return new _(255*(e+r*(Y*n+W*i)),255*(e+r*(X*n+Z*i)),255*(e+r*($*n)),this.opacity)}})),t.color=v,t.rgb=b,t.hsl=T,t.lab=F,t.hcl=q,t.lch=function(t,e,r,n){return 1===arguments.length?H(t):new G(r,e,t,null==n?1:n)},t.gray=function(t,e){return new B(t,0,0,null==e?1:e)},t.cubehelix=tt,Object.defineProperty(t,\\\"__esModule\\\",{value:!0})}(\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?r:n.d3=n.d3||{})},{}],148:[function(t,e,r){var n;n=this,function(t){\\\"use strict\\\";var e={value:function(){}};function r(){for(var t,e=0,r=arguments.length,i={};e<r;++e){if(!(t=arguments[e]+\\\"\\\")||t in i)throw new Error(\\\"illegal type: \\\"+t);i[t]=[]}return new n(i)}function n(t){this._=t}function i(t,e){for(var r,n=0,i=t.length;n<i;++n)if((r=t[n]).name===e)return r.value}function a(t,r,n){for(var i=0,a=t.length;i<a;++i)if(t[i].name===r){t[i]=e,t=t.slice(0,i).concat(t.slice(i+1));break}return null!=n&&t.push({name:r,value:n}),t}n.prototype=r.prototype={constructor:n,on:function(t,e){var r,n,o=this._,s=(n=o,(t+\\\"\\\").trim().split(/^|\\\\s+/).map(function(t){var e=\\\"\\\",r=t.indexOf(\\\".\\\");if(r>=0&&(e=t.slice(r+1),t=t.slice(0,r)),t&&!n.hasOwnProperty(t))throw new Error(\\\"unknown type: \\\"+t);return{type:t,name:e}})),l=-1,c=s.length;if(!(arguments.length<2)){if(null!=e&&\\\"function\\\"!=typeof e)throw new Error(\\\"invalid callback: \\\"+e);for(;++l<c;)if(r=(t=s[l]).type)o[r]=a(o[r],t.name,e);else if(null==e)for(r in o)o[r]=a(o[r],t.name,null);return this}for(;++l<c;)if((r=(t=s[l]).type)&&(r=i(o[r],t.name)))return r},copy:function(){var t={},e=this._;for(var r in e)t[r]=e[r].slice();return new n(t)},call:function(t,e){if((r=arguments.length-2)>0)for(var r,n,i=new Array(r),a=0;a<r;++a)i[a]=arguments[a+2];if(!this._.hasOwnProperty(t))throw new Error(\\\"unknown type: \\\"+t);for(a=0,r=(n=this._[t]).length;a<r;++a)n[a].value.apply(e,i)},apply:function(t,e,r){if(!this._.hasOwnProperty(t))throw new Error(\\\"unknown type: \\\"+t);for(var n=this._[t],i=0,a=n.length;i<a;++i)n[i].value.apply(e,r)}},t.dispatch=r,Object.defineProperty(t,\\\"__esModule\\\",{value:!0})}(\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?r:n.d3=n.d3||{})},{}],149:[function(t,e,r){var n,i;n=this,i=function(t,e,r,n,i){\\\"use strict\\\";var a=function(t){return function(){return t}},o=function(){return 1e-6*(Math.random()-.5)};function s(t){return t.x+t.vx}function l(t){return t.y+t.vy}function c(t){return t.index}function u(t,e){var r=t.get(e);if(!r)throw new Error(\\\"missing: \\\"+e);return r}function f(t){return t.x}function h(t){return t.y}var p=10,d=Math.PI*(3-Math.sqrt(5));t.forceCenter=function(t,e){var r;function n(){var n,i,a=r.length,o=0,s=0;for(n=0;n<a;++n)o+=(i=r[n]).x,s+=i.y;for(o=o/a-t,s=s/a-e,n=0;n<a;++n)(i=r[n]).x-=o,i.y-=s}return null==t&&(t=0),null==e&&(e=0),n.initialize=function(t){r=t},n.x=function(e){return arguments.length?(t=+e,n):t},n.y=function(t){return arguments.length?(e=+t,n):e},n},t.forceCollide=function(t){var r,n,i=1,c=1;function u(){for(var t,a,u,h,p,d,g,v=r.length,m=0;m<c;++m)for(a=e.quadtree(r,s,l).visitAfter(f),t=0;t<v;++t)u=r[t],d=n[u.index],g=d*d,h=u.x+u.vx,p=u.y+u.vy,a.visit(y);function y(t,e,r,n,a){var s=t.data,l=t.r,c=d+l;if(!s)return e>h+c||n<h-c||r>p+c||a<p-c;if(s.index>u.index){var f=h-s.x-s.vx,v=p-s.y-s.vy,m=f*f+v*v;m<c*c&&(0===f&&(m+=(f=o())*f),0===v&&(m+=(v=o())*v),m=(c-(m=Math.sqrt(m)))/m*i,u.vx+=(f*=m)*(c=(l*=l)/(g+l)),u.vy+=(v*=m)*c,s.vx-=f*(c=1-c),s.vy-=v*c)}}}function f(t){if(t.data)return t.r=n[t.data.index];for(var e=t.r=0;e<4;++e)t[e]&&t[e].r>t.r&&(t.r=t[e].r)}function h(){if(r){var e,i,a=r.length;for(n=new Array(a),e=0;e<a;++e)i=r[e],n[i.index]=+t(i,e,r)}}return\\\"function\\\"!=typeof t&&(t=a(null==t?1:+t)),u.initialize=function(t){r=t,h()},u.iterations=function(t){return arguments.length?(c=+t,u):c},u.strength=function(t){return arguments.length?(i=+t,u):i},u.radius=function(e){return arguments.length?(t=\\\"function\\\"==typeof e?e:a(+e),h(),u):t},u},t.forceLink=function(t){var e,n,i,s,l,f=c,h=function(t){return 1/Math.min(s[t.source.index],s[t.target.index])},p=a(30),d=1;function g(r){for(var i=0,a=t.length;i<d;++i)for(var s,c,u,f,h,p,g,v=0;v<a;++v)c=(s=t[v]).source,f=(u=s.target).x+u.vx-c.x-c.vx||o(),h=u.y+u.vy-c.y-c.vy||o(),f*=p=((p=Math.sqrt(f*f+h*h))-n[v])/p*r*e[v],h*=p,u.vx-=f*(g=l[v]),u.vy-=h*g,c.vx+=f*(g=1-g),c.vy+=h*g}function v(){if(i){var a,o,c=i.length,h=t.length,p=r.map(i,f);for(a=0,s=new Array(c);a<h;++a)(o=t[a]).index=a,\\\"object\\\"!=typeof o.source&&(o.source=u(p,o.source)),\\\"object\\\"!=typeof o.target&&(o.target=u(p,o.target)),s[o.source.index]=(s[o.source.index]||0)+1,s[o.target.index]=(s[o.target.index]||0)+1;for(a=0,l=new Array(h);a<h;++a)o=t[a],l[a]=s[o.source.index]/(s[o.source.index]+s[o.target.index]);e=new Array(h),m(),n=new Array(h),y()}}function m(){if(i)for(var r=0,n=t.length;r<n;++r)e[r]=+h(t[r],r,t)}function y(){if(i)for(var e=0,r=t.length;e<r;++e)n[e]=+p(t[e],e,t)}return null==t&&(t=[]),g.initialize=function(t){i=t,v()},g.links=function(e){return arguments.length?(t=e,v(),g):t},g.id=function(t){return arguments.length?(f=t,g):f},g.iterations=function(t){return arguments.length?(d=+t,g):d},g.strength=function(t){return arguments.length?(h=\\\"function\\\"==typeof t?t:a(+t),m(),g):h},g.distance=function(t){return arguments.length?(p=\\\"function\\\"==typeof t?t:a(+t),y(),g):p},g},t.forceManyBody=function(){var t,r,n,i,s=a(-30),l=1,c=1/0,u=.81;function p(i){var a,o=t.length,s=e.quadtree(t,f,h).visitAfter(g);for(n=i,a=0;a<o;++a)r=t[a],s.visit(v)}function d(){if(t){var e,r,n=t.length;for(i=new Array(n),e=0;e<n;++e)r=t[e],i[r.index]=+s(r,e,t)}}function g(t){var e,r,n,a,o,s=0,l=0;if(t.length){for(n=a=o=0;o<4;++o)(e=t[o])&&(r=Math.abs(e.value))&&(s+=e.value,l+=r,n+=r*e.x,a+=r*e.y);t.x=n/l,t.y=a/l}else{(e=t).x=e.data.x,e.y=e.data.y;do{s+=i[e.data.index]}while(e=e.next)}t.value=s}function v(t,e,a,s){if(!t.value)return!0;var f=t.x-r.x,h=t.y-r.y,p=s-e,d=f*f+h*h;if(p*p/u<d)return d<c&&(0===f&&(d+=(f=o())*f),0===h&&(d+=(h=o())*h),d<l&&(d=Math.sqrt(l*d)),r.vx+=f*t.value*n/d,r.vy+=h*t.value*n/d),!0;if(!(t.length||d>=c)){(t.data!==r||t.next)&&(0===f&&(d+=(f=o())*f),0===h&&(d+=(h=o())*h),d<l&&(d=Math.sqrt(l*d)));do{t.data!==r&&(p=i[t.data.index]*n/d,r.vx+=f*p,r.vy+=h*p)}while(t=t.next)}}return p.initialize=function(e){t=e,d()},p.strength=function(t){return arguments.length?(s=\\\"function\\\"==typeof t?t:a(+t),d(),p):s},p.distanceMin=function(t){return arguments.length?(l=t*t,p):Math.sqrt(l)},p.distanceMax=function(t){return arguments.length?(c=t*t,p):Math.sqrt(c)},p.theta=function(t){return arguments.length?(u=t*t,p):Math.sqrt(u)},p},t.forceRadial=function(t,e,r){var n,i,o,s=a(.1);function l(t){for(var a=0,s=n.length;a<s;++a){var l=n[a],c=l.x-e||1e-6,u=l.y-r||1e-6,f=Math.sqrt(c*c+u*u),h=(o[a]-f)*i[a]*t/f;l.vx+=c*h,l.vy+=u*h}}function c(){if(n){var e,r=n.length;for(i=new Array(r),o=new Array(r),e=0;e<r;++e)o[e]=+t(n[e],e,n),i[e]=isNaN(o[e])?0:+s(n[e],e,n)}}return\\\"function\\\"!=typeof t&&(t=a(+t)),null==e&&(e=0),null==r&&(r=0),l.initialize=function(t){n=t,c()},l.strength=function(t){return arguments.length?(s=\\\"function\\\"==typeof t?t:a(+t),c(),l):s},l.radius=function(e){return arguments.length?(t=\\\"function\\\"==typeof e?e:a(+e),c(),l):t},l.x=function(t){return arguments.length?(e=+t,l):e},l.y=function(t){return arguments.length?(r=+t,l):r},l},t.forceSimulation=function(t){var e,a=1,o=.001,s=1-Math.pow(o,1/300),l=0,c=.6,u=r.map(),f=i.timer(g),h=n.dispatch(\\\"tick\\\",\\\"end\\\");function g(){v(),h.call(\\\"tick\\\",e),a<o&&(f.stop(),h.call(\\\"end\\\",e))}function v(){var e,r,n=t.length;for(a+=(l-a)*s,u.each(function(t){t(a)}),e=0;e<n;++e)null==(r=t[e]).fx?r.x+=r.vx*=c:(r.x=r.fx,r.vx=0),null==r.fy?r.y+=r.vy*=c:(r.y=r.fy,r.vy=0)}function m(){for(var e,r=0,n=t.length;r<n;++r){if((e=t[r]).index=r,isNaN(e.x)||isNaN(e.y)){var i=p*Math.sqrt(r),a=r*d;e.x=i*Math.cos(a),e.y=i*Math.sin(a)}(isNaN(e.vx)||isNaN(e.vy))&&(e.vx=e.vy=0)}}function y(e){return e.initialize&&e.initialize(t),e}return null==t&&(t=[]),m(),e={tick:v,restart:function(){return f.restart(g),e},stop:function(){return f.stop(),e},nodes:function(r){return arguments.length?(t=r,m(),u.each(y),e):t},alpha:function(t){return arguments.length?(a=+t,e):a},alphaMin:function(t){return arguments.length?(o=+t,e):o},alphaDecay:function(t){return arguments.length?(s=+t,e):+s},alphaTarget:function(t){return arguments.length?(l=+t,e):l},velocityDecay:function(t){return arguments.length?(c=1-t,e):1-c},force:function(t,r){return arguments.length>1?(null==r?u.remove(t):u.set(t,y(r)),e):u.get(t)},find:function(e,r,n){var i,a,o,s,l,c=0,u=t.length;for(null==n?n=1/0:n*=n,c=0;c<u;++c)(o=(i=e-(s=t[c]).x)*i+(a=r-s.y)*a)<n&&(l=s,n=o);return l},on:function(t,r){return arguments.length>1?(h.on(t,r),e):h.on(t)}}},t.forceX=function(t){var e,r,n,i=a(.1);function o(t){for(var i,a=0,o=e.length;a<o;++a)(i=e[a]).vx+=(n[a]-i.x)*r[a]*t}function s(){if(e){var a,o=e.length;for(r=new Array(o),n=new Array(o),a=0;a<o;++a)r[a]=isNaN(n[a]=+t(e[a],a,e))?0:+i(e[a],a,e)}}return\\\"function\\\"!=typeof t&&(t=a(null==t?0:+t)),o.initialize=function(t){e=t,s()},o.strength=function(t){return arguments.length?(i=\\\"function\\\"==typeof t?t:a(+t),s(),o):i},o.x=function(e){return arguments.length?(t=\\\"function\\\"==typeof e?e:a(+e),s(),o):t},o},t.forceY=function(t){var e,r,n,i=a(.1);function o(t){for(var i,a=0,o=e.length;a<o;++a)(i=e[a]).vy+=(n[a]-i.y)*r[a]*t}function s(){if(e){var a,o=e.length;for(r=new Array(o),n=new Array(o),a=0;a<o;++a)r[a]=isNaN(n[a]=+t(e[a],a,e))?0:+i(e[a],a,e)}}return\\\"function\\\"!=typeof t&&(t=a(null==t?0:+t)),o.initialize=function(t){e=t,s()},o.strength=function(t){return arguments.length?(i=\\\"function\\\"==typeof t?t:a(+t),s(),o):i},o.y=function(e){return arguments.length?(t=\\\"function\\\"==typeof e?e:a(+e),s(),o):t},o},Object.defineProperty(t,\\\"__esModule\\\",{value:!0})},\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?i(r,t(\\\"d3-quadtree\\\"),t(\\\"d3-collection\\\"),t(\\\"d3-dispatch\\\"),t(\\\"d3-timer\\\")):i(n.d3=n.d3||{},n.d3,n.d3,n.d3,n.d3)},{\\\"d3-collection\\\":146,\\\"d3-dispatch\\\":148,\\\"d3-quadtree\\\":153,\\\"d3-timer\\\":156}],150:[function(t,e,r){var n;n=this,function(t){\\\"use strict\\\";function e(t,e){return t.parent===e.parent?1:2}function r(t,e){return t+e.x}function n(t,e){return Math.max(t,e.y)}function i(t){var e=0,r=t.children,n=r&&r.length;if(n)for(;--n>=0;)e+=r[n].value;else e=1;t.value=e}function a(t,e){var r,n,i,a,s,u=new c(t),f=+t.value&&(u.value=t.value),h=[u];for(null==e&&(e=o);r=h.pop();)if(f&&(r.value=+r.data.value),(i=e(r.data))&&(s=i.length))for(r.children=new Array(s),a=s-1;a>=0;--a)h.push(n=r.children[a]=new c(i[a])),n.parent=r,n.depth=r.depth+1;return u.eachBefore(l)}function o(t){return t.children}function s(t){t.data=t.data.data}function l(t){var e=0;do{t.height=e}while((t=t.parent)&&t.height<++e)}function c(t){this.data=t,this.depth=this.height=0,this.parent=null}c.prototype=a.prototype={constructor:c,count:function(){return this.eachAfter(i)},each:function(t){var e,r,n,i,a=this,o=[a];do{for(e=o.reverse(),o=[];a=e.pop();)if(t(a),r=a.children)for(n=0,i=r.length;n<i;++n)o.push(r[n])}while(o.length);return this},eachAfter:function(t){for(var e,r,n,i=this,a=[i],o=[];i=a.pop();)if(o.push(i),e=i.children)for(r=0,n=e.length;r<n;++r)a.push(e[r]);for(;i=o.pop();)t(i);return this},eachBefore:function(t){for(var e,r,n=this,i=[n];n=i.pop();)if(t(n),e=n.children)for(r=e.length-1;r>=0;--r)i.push(e[r]);return this},sum:function(t){return this.eachAfter(function(e){for(var r=+t(e.data)||0,n=e.children,i=n&&n.length;--i>=0;)r+=n[i].value;e.value=r})},sort:function(t){return this.eachBefore(function(e){e.children&&e.children.sort(t)})},path:function(t){for(var e=this,r=function(t,e){if(t===e)return t;var r=t.ancestors(),n=e.ancestors(),i=null;for(t=r.pop(),e=n.pop();t===e;)i=t,t=r.pop(),e=n.pop();return i}(e,t),n=[e];e!==r;)e=e.parent,n.push(e);for(var i=n.length;t!==r;)n.splice(i,0,t),t=t.parent;return n},ancestors:function(){for(var t=this,e=[t];t=t.parent;)e.push(t);return e},descendants:function(){var t=[];return this.each(function(e){t.push(e)}),t},leaves:function(){var t=[];return this.eachBefore(function(e){e.children||t.push(e)}),t},links:function(){var t=this,e=[];return t.each(function(r){r!==t&&e.push({source:r.parent,target:r})}),e},copy:function(){return a(this).eachBefore(s)}};var u=Array.prototype.slice;function f(t){for(var e,r,n=0,i=(t=function(t){for(var e,r,n=t.length;n;)r=Math.random()*n--|0,e=t[n],t[n]=t[r],t[r]=e;return t}(u.call(t))).length,a=[];n<i;)e=t[n],r&&d(r,e)?++n:(r=v(a=h(a,e)),n=0);return r}function h(t,e){var r,n;if(g(e,t))return[e];for(r=0;r<t.length;++r)if(p(e,t[r])&&g(m(t[r],e),t))return[t[r],e];for(r=0;r<t.length-1;++r)for(n=r+1;n<t.length;++n)if(p(m(t[r],t[n]),e)&&p(m(t[r],e),t[n])&&p(m(t[n],e),t[r])&&g(y(t[r],t[n],e),t))return[t[r],t[n],e];throw new Error}function p(t,e){var r=t.r-e.r,n=e.x-t.x,i=e.y-t.y;return r<0||r*r<n*n+i*i}function d(t,e){var r=t.r-e.r+1e-6,n=e.x-t.x,i=e.y-t.y;return r>0&&r*r>n*n+i*i}function g(t,e){for(var r=0;r<e.length;++r)if(!d(t,e[r]))return!1;return!0}function v(t){switch(t.length){case 1:return{x:(e=t[0]).x,y:e.y,r:e.r};case 2:return m(t[0],t[1]);case 3:return y(t[0],t[1],t[2])}var e}function m(t,e){var r=t.x,n=t.y,i=t.r,a=e.x,o=e.y,s=e.r,l=a-r,c=o-n,u=s-i,f=Math.sqrt(l*l+c*c);return{x:(r+a+l/f*u)/2,y:(n+o+c/f*u)/2,r:(f+i+s)/2}}function y(t,e,r){var n=t.x,i=t.y,a=t.r,o=e.x,s=e.y,l=e.r,c=r.x,u=r.y,f=r.r,h=n-o,p=n-c,d=i-s,g=i-u,v=l-a,m=f-a,y=n*n+i*i-a*a,x=y-o*o-s*s+l*l,b=y-c*c-u*u+f*f,_=p*d-h*g,w=(d*b-g*x)/(2*_)-n,k=(g*v-d*m)/_,T=(p*x-h*b)/(2*_)-i,A=(h*m-p*v)/_,M=k*k+A*A-1,S=2*(a+w*k+T*A),E=w*w+T*T-a*a,C=-(M?(S+Math.sqrt(S*S-4*M*E))/(2*M):E/S);return{x:n+w+k*C,y:i+T+A*C,r:C}}function x(t,e,r){var n,i,a,o,s=t.x-e.x,l=t.y-e.y,c=s*s+l*l;c?(i=e.r+r.r,i*=i,o=t.r+r.r,i>(o*=o)?(n=(c+o-i)/(2*c),a=Math.sqrt(Math.max(0,o/c-n*n)),r.x=t.x-n*s-a*l,r.y=t.y-n*l+a*s):(n=(c+i-o)/(2*c),a=Math.sqrt(Math.max(0,i/c-n*n)),r.x=e.x+n*s-a*l,r.y=e.y+n*l+a*s)):(r.x=e.x+r.r,r.y=e.y)}function b(t,e){var r=t.r+e.r-1e-6,n=e.x-t.x,i=e.y-t.y;return r>0&&r*r>n*n+i*i}function _(t){var e=t._,r=t.next._,n=e.r+r.r,i=(e.x*r.r+r.x*e.r)/n,a=(e.y*r.r+r.y*e.r)/n;return i*i+a*a}function w(t){this._=t,this.next=null,this.previous=null}function k(t){if(!(i=t.length))return 0;var e,r,n,i,a,o,s,l,c,u,h;if((e=t[0]).x=0,e.y=0,!(i>1))return e.r;if(r=t[1],e.x=-r.r,r.x=e.r,r.y=0,!(i>2))return e.r+r.r;x(r,e,n=t[2]),e=new w(e),r=new w(r),n=new w(n),e.next=n.previous=r,r.next=e.previous=n,n.next=r.previous=e;t:for(s=3;s<i;++s){x(e._,r._,n=t[s]),n=new w(n),l=r.next,c=e.previous,u=r._.r,h=e._.r;do{if(u<=h){if(b(l._,n._)){r=l,e.next=r,r.previous=e,--s;continue t}u+=l._.r,l=l.next}else{if(b(c._,n._)){(e=c).next=r,r.previous=e,--s;continue t}h+=c._.r,c=c.previous}}while(l!==c.next);for(n.previous=e,n.next=r,e.next=r.previous=r=n,a=_(e);(n=n.next)!==r;)(o=_(n))<a&&(e=n,a=o);r=e.next}for(e=[r._],n=r;(n=n.next)!==r;)e.push(n._);for(n=f(e),s=0;s<i;++s)(e=t[s]).x-=n.x,e.y-=n.y;return n.r}function T(t){if(\\\"function\\\"!=typeof t)throw new Error;return t}function A(){return 0}function M(t){return function(){return t}}function S(t){return Math.sqrt(t.value)}function E(t){return function(e){e.children||(e.r=Math.max(0,+t(e)||0))}}function C(t,e){return function(r){if(n=r.children){var n,i,a,o=n.length,s=t(r)*e||0;if(s)for(i=0;i<o;++i)n[i].r+=s;if(a=k(n),s)for(i=0;i<o;++i)n[i].r-=s;r.r=a+s}}}function L(t){return function(e){var r=e.parent;e.r*=t,r&&(e.x=r.x+t*e.x,e.y=r.y+t*e.y)}}function z(t){t.x0=Math.round(t.x0),t.y0=Math.round(t.y0),t.x1=Math.round(t.x1),t.y1=Math.round(t.y1)}function O(t,e,r,n,i){for(var a,o=t.children,s=-1,l=o.length,c=t.value&&(n-e)/t.value;++s<l;)(a=o[s]).y0=r,a.y1=i,a.x0=e,a.x1=e+=a.value*c}var I=\\\"$\\\",D={depth:-1},P={};function R(t){return t.id}function F(t){return t.parentId}function B(t,e){return t.parent===e.parent?1:2}function N(t){var e=t.children;return e?e[0]:t.t}function j(t){var e=t.children;return e?e[e.length-1]:t.t}function V(t,e,r){var n=r/(e.i-t.i);e.c-=n,e.s+=r,t.c+=n,e.z+=r,e.m+=r}function U(t,e,r){return t.a.parent===e.parent?t.a:r}function H(t,e){this._=t,this.parent=null,this.children=null,this.A=null,this.a=this,this.z=0,this.m=0,this.c=0,this.s=0,this.t=null,this.i=e}function q(t,e,r,n,i){for(var a,o=t.children,s=-1,l=o.length,c=t.value&&(i-r)/t.value;++s<l;)(a=o[s]).x0=e,a.x1=n,a.y0=r,a.y1=r+=a.value*c}H.prototype=Object.create(c.prototype);var G=(1+Math.sqrt(5))/2;function Y(t,e,r,n,i,a){for(var o,s,l,c,u,f,h,p,d,g,v,m=[],y=e.children,x=0,b=0,_=y.length,w=e.value;x<_;){l=i-r,c=a-n;do{u=y[b++].value}while(!u&&b<_);for(f=h=u,v=u*u*(g=Math.max(c/l,l/c)/(w*t)),d=Math.max(h/v,v/f);b<_;++b){if(u+=s=y[b].value,s<f&&(f=s),s>h&&(h=s),v=u*u*g,(p=Math.max(h/v,v/f))>d){u-=s;break}d=p}m.push(o={value:u,dice:l<c,children:y.slice(x,b)}),o.dice?O(o,r,n,i,w?n+=c*u/w:a):q(o,r,n,w?r+=l*u/w:i,a),w-=u,x=b}return m}var W=function t(e){function r(t,r,n,i,a){Y(e,t,r,n,i,a)}return r.ratio=function(e){return t((e=+e)>1?e:1)},r}(G);var X=function t(e){function r(t,r,n,i,a){if((o=t._squarify)&&o.ratio===e)for(var o,s,l,c,u,f=-1,h=o.length,p=t.value;++f<h;){for(l=(s=o[f]).children,c=s.value=0,u=l.length;c<u;++c)s.value+=l[c].value;s.dice?O(s,r,n,i,n+=(a-n)*s.value/p):q(s,r,n,r+=(i-r)*s.value/p,a),p-=s.value}else t._squarify=o=Y(e,t,r,n,i,a),o.ratio=e}return r.ratio=function(e){return t((e=+e)>1?e:1)},r}(G);t.cluster=function(){var t=e,i=1,a=1,o=!1;function s(e){var s,l=0;e.eachAfter(function(e){var i=e.children;i?(e.x=function(t){return t.reduce(r,0)/t.length}(i),e.y=function(t){return 1+t.reduce(n,0)}(i)):(e.x=s?l+=t(e,s):0,e.y=0,s=e)});var c=function(t){for(var e;e=t.children;)t=e[0];return t}(e),u=function(t){for(var e;e=t.children;)t=e[e.length-1];return t}(e),f=c.x-t(c,u)/2,h=u.x+t(u,c)/2;return e.eachAfter(o?function(t){t.x=(t.x-e.x)*i,t.y=(e.y-t.y)*a}:function(t){t.x=(t.x-f)/(h-f)*i,t.y=(1-(e.y?t.y/e.y:1))*a})}return s.separation=function(e){return arguments.length?(t=e,s):t},s.size=function(t){return arguments.length?(o=!1,i=+t[0],a=+t[1],s):o?null:[i,a]},s.nodeSize=function(t){return arguments.length?(o=!0,i=+t[0],a=+t[1],s):o?[i,a]:null},s},t.hierarchy=a,t.pack=function(){var t=null,e=1,r=1,n=A;function i(i){return i.x=e/2,i.y=r/2,t?i.eachBefore(E(t)).eachAfter(C(n,.5)).eachBefore(L(1)):i.eachBefore(E(S)).eachAfter(C(A,1)).eachAfter(C(n,i.r/Math.min(e,r))).eachBefore(L(Math.min(e,r)/(2*i.r))),i}return i.radius=function(e){return arguments.length?(t=null==(r=e)?null:T(r),i):t;var r},i.size=function(t){return arguments.length?(e=+t[0],r=+t[1],i):[e,r]},i.padding=function(t){return arguments.length?(n=\\\"function\\\"==typeof t?t:M(+t),i):n},i},t.packSiblings=function(t){return k(t),t},t.packEnclose=f,t.partition=function(){var t=1,e=1,r=0,n=!1;function i(i){var a=i.height+1;return i.x0=i.y0=r,i.x1=t,i.y1=e/a,i.eachBefore(function(t,e){return function(n){n.children&&O(n,n.x0,t*(n.depth+1)/e,n.x1,t*(n.depth+2)/e);var i=n.x0,a=n.y0,o=n.x1-r,s=n.y1-r;o<i&&(i=o=(i+o)/2),s<a&&(a=s=(a+s)/2),n.x0=i,n.y0=a,n.x1=o,n.y1=s}}(e,a)),n&&i.eachBefore(z),i}return i.round=function(t){return arguments.length?(n=!!t,i):n},i.size=function(r){return arguments.length?(t=+r[0],e=+r[1],i):[t,e]},i.padding=function(t){return arguments.length?(r=+t,i):r},i},t.stratify=function(){var t=R,e=F;function r(r){var n,i,a,o,s,u,f,h=r.length,p=new Array(h),d={};for(i=0;i<h;++i)n=r[i],s=p[i]=new c(n),null!=(u=t(n,i,r))&&(u+=\\\"\\\")&&(d[f=I+(s.id=u)]=f in d?P:s);for(i=0;i<h;++i)if(s=p[i],null!=(u=e(r[i],i,r))&&(u+=\\\"\\\")){if(!(o=d[I+u]))throw new Error(\\\"missing: \\\"+u);if(o===P)throw new Error(\\\"ambiguous: \\\"+u);o.children?o.children.push(s):o.children=[s],s.parent=o}else{if(a)throw new Error(\\\"multiple roots\\\");a=s}if(!a)throw new Error(\\\"no root\\\");if(a.parent=D,a.eachBefore(function(t){t.depth=t.parent.depth+1,--h}).eachBefore(l),a.parent=null,h>0)throw new Error(\\\"cycle\\\");return a}return r.id=function(e){return arguments.length?(t=T(e),r):t},r.parentId=function(t){return arguments.length?(e=T(t),r):e},r},t.tree=function(){var t=B,e=1,r=1,n=null;function i(i){var l=function(t){for(var e,r,n,i,a,o=new H(t,0),s=[o];e=s.pop();)if(n=e._.children)for(e.children=new Array(a=n.length),i=a-1;i>=0;--i)s.push(r=e.children[i]=new H(n[i],i)),r.parent=e;return(o.parent=new H(null,0)).children=[o],o}(i);if(l.eachAfter(a),l.parent.m=-l.z,l.eachBefore(o),n)i.eachBefore(s);else{var c=i,u=i,f=i;i.eachBefore(function(t){t.x<c.x&&(c=t),t.x>u.x&&(u=t),t.depth>f.depth&&(f=t)});var h=c===u?1:t(c,u)/2,p=h-c.x,d=e/(u.x+h+p),g=r/(f.depth||1);i.eachBefore(function(t){t.x=(t.x+p)*d,t.y=t.depth*g})}return i}function a(e){var r=e.children,n=e.parent.children,i=e.i?n[e.i-1]:null;if(r){!function(t){for(var e,r=0,n=0,i=t.children,a=i.length;--a>=0;)(e=i[a]).z+=r,e.m+=r,r+=e.s+(n+=e.c)}(e);var a=(r[0].z+r[r.length-1].z)/2;i?(e.z=i.z+t(e._,i._),e.m=e.z-a):e.z=a}else i&&(e.z=i.z+t(e._,i._));e.parent.A=function(e,r,n){if(r){for(var i,a=e,o=e,s=r,l=a.parent.children[0],c=a.m,u=o.m,f=s.m,h=l.m;s=j(s),a=N(a),s&&a;)l=N(l),(o=j(o)).a=e,(i=s.z+f-a.z-c+t(s._,a._))>0&&(V(U(s,e,n),e,i),c+=i,u+=i),f+=s.m,c+=a.m,h+=l.m,u+=o.m;s&&!j(o)&&(o.t=s,o.m+=f-u),a&&!N(l)&&(l.t=a,l.m+=c-h,n=e)}return n}(e,i,e.parent.A||n[0])}function o(t){t._.x=t.z+t.parent.m,t.m+=t.parent.m}function s(t){t.x*=e,t.y=t.depth*r}return i.separation=function(e){return arguments.length?(t=e,i):t},i.size=function(t){return arguments.length?(n=!1,e=+t[0],r=+t[1],i):n?null:[e,r]},i.nodeSize=function(t){return arguments.length?(n=!0,e=+t[0],r=+t[1],i):n?[e,r]:null},i},t.treemap=function(){var t=W,e=!1,r=1,n=1,i=[0],a=A,o=A,s=A,l=A,c=A;function u(t){return t.x0=t.y0=0,t.x1=r,t.y1=n,t.eachBefore(f),i=[0],e&&t.eachBefore(z),t}function f(e){var r=i[e.depth],n=e.x0+r,u=e.y0+r,f=e.x1-r,h=e.y1-r;f<n&&(n=f=(n+f)/2),h<u&&(u=h=(u+h)/2),e.x0=n,e.y0=u,e.x1=f,e.y1=h,e.children&&(r=i[e.depth+1]=a(e)/2,n+=c(e)-r,u+=o(e)-r,(f-=s(e)-r)<n&&(n=f=(n+f)/2),(h-=l(e)-r)<u&&(u=h=(u+h)/2),t(e,n,u,f,h))}return u.round=function(t){return arguments.length?(e=!!t,u):e},u.size=function(t){return arguments.length?(r=+t[0],n=+t[1],u):[r,n]},u.tile=function(e){return arguments.length?(t=T(e),u):t},u.padding=function(t){return arguments.length?u.paddingInner(t).paddingOuter(t):u.paddingInner()},u.paddingInner=function(t){return arguments.length?(a=\\\"function\\\"==typeof t?t:M(+t),u):a},u.paddingOuter=function(t){return arguments.length?u.paddingTop(t).paddingRight(t).paddingBottom(t).paddingLeft(t):u.paddingTop()},u.paddingTop=function(t){return arguments.length?(o=\\\"function\\\"==typeof t?t:M(+t),u):o},u.paddingRight=function(t){return arguments.length?(s=\\\"function\\\"==typeof t?t:M(+t),u):s},u.paddingBottom=function(t){return arguments.length?(l=\\\"function\\\"==typeof t?t:M(+t),u):l},u.paddingLeft=function(t){return arguments.length?(c=\\\"function\\\"==typeof t?t:M(+t),u):c},u},t.treemapBinary=function(t,e,r,n,i){var a,o,s=t.children,l=s.length,c=new Array(l+1);for(c[0]=o=a=0;a<l;++a)c[a+1]=o+=s[a].value;!function t(e,r,n,i,a,o,l){if(e>=r-1){var u=s[e];return u.x0=i,u.y0=a,u.x1=o,void(u.y1=l)}for(var f=c[e],h=n/2+f,p=e+1,d=r-1;p<d;){var g=p+d>>>1;c[g]<h?p=g+1:d=g}h-c[p-1]<c[p]-h&&e+1<p&&--p;var v=c[p]-f,m=n-v;if(o-i>l-a){var y=(i*m+o*v)/n;t(e,p,v,i,a,y,l),t(p,r,m,y,a,o,l)}else{var x=(a*m+l*v)/n;t(e,p,v,i,a,o,x),t(p,r,m,i,x,o,l)}}(0,l,t.value,e,r,n,i)},t.treemapDice=O,t.treemapSlice=q,t.treemapSliceDice=function(t,e,r,n,i){(1&t.depth?q:O)(t,e,r,n,i)},t.treemapSquarify=W,t.treemapResquarify=X,Object.defineProperty(t,\\\"__esModule\\\",{value:!0})}(\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?r:n.d3=n.d3||{})},{}],151:[function(t,e,r){var n,i;n=this,i=function(t,e){\\\"use strict\\\";function r(t,e,r,n,i){var a=t*t,o=a*t;return((1-3*t+3*a-o)*e+(4-6*a+3*o)*r+(1+3*t+3*a-3*o)*n+o*i)/6}function n(t){var e=t.length-1;return function(n){var i=n<=0?n=0:n>=1?(n=1,e-1):Math.floor(n*e),a=t[i],o=t[i+1],s=i>0?t[i-1]:2*a-o,l=i<e-1?t[i+2]:2*o-a;return r((n-i/e)*e,s,a,o,l)}}function i(t){var e=t.length;return function(n){var i=Math.floor(((n%=1)<0?++n:n)*e),a=t[(i+e-1)%e],o=t[i%e],s=t[(i+1)%e],l=t[(i+2)%e];return r((n-i/e)*e,a,o,s,l)}}function a(t){return function(){return t}}function o(t,e){return function(r){return t+r*e}}function s(t,e){var r=e-t;return r?o(t,r>180||r<-180?r-360*Math.round(r/360):r):a(isNaN(t)?e:t)}function l(t){return 1==(t=+t)?c:function(e,r){return r-e?function(t,e,r){return t=Math.pow(t,r),e=Math.pow(e,r)-t,r=1/r,function(n){return Math.pow(t+n*e,r)}}(e,r,t):a(isNaN(e)?r:e)}}function c(t,e){var r=e-t;return r?o(t,r):a(isNaN(t)?e:t)}var u=function t(r){var n=l(r);function i(t,r){var i=n((t=e.rgb(t)).r,(r=e.rgb(r)).r),a=n(t.g,r.g),o=n(t.b,r.b),s=c(t.opacity,r.opacity);return function(e){return t.r=i(e),t.g=a(e),t.b=o(e),t.opacity=s(e),t+\\\"\\\"}}return i.gamma=t,i}(1);function f(t){return function(r){var n,i,a=r.length,o=new Array(a),s=new Array(a),l=new Array(a);for(n=0;n<a;++n)i=e.rgb(r[n]),o[n]=i.r||0,s[n]=i.g||0,l[n]=i.b||0;return o=t(o),s=t(s),l=t(l),i.opacity=1,function(t){return i.r=o(t),i.g=s(t),i.b=l(t),i+\\\"\\\"}}}var h=f(n),p=f(i);function d(t,e){var r,n=e?e.length:0,i=t?Math.min(n,t.length):0,a=new Array(i),o=new Array(n);for(r=0;r<i;++r)a[r]=_(t[r],e[r]);for(;r<n;++r)o[r]=e[r];return function(t){for(r=0;r<i;++r)o[r]=a[r](t);return o}}function g(t,e){var r=new Date;return e-=t=+t,function(n){return r.setTime(t+e*n),r}}function v(t,e){return e-=t=+t,function(r){return t+e*r}}function m(t,e){var r,n={},i={};for(r in null!==t&&\\\"object\\\"==typeof t||(t={}),null!==e&&\\\"object\\\"==typeof e||(e={}),e)r in t?n[r]=_(t[r],e[r]):i[r]=e[r];return function(t){for(r in n)i[r]=n[r](t);return i}}var y=/[-+]?(?:\\\\d+\\\\.?\\\\d*|\\\\.?\\\\d+)(?:[eE][-+]?\\\\d+)?/g,x=new RegExp(y.source,\\\"g\\\");function b(t,e){var r,n,i,a=y.lastIndex=x.lastIndex=0,o=-1,s=[],l=[];for(t+=\\\"\\\",e+=\\\"\\\";(r=y.exec(t))&&(n=x.exec(e));)(i=n.index)>a&&(i=e.slice(a,i),s[o]?s[o]+=i:s[++o]=i),(r=r[0])===(n=n[0])?s[o]?s[o]+=n:s[++o]=n:(s[++o]=null,l.push({i:o,x:v(r,n)})),a=x.lastIndex;return a<e.length&&(i=e.slice(a),s[o]?s[o]+=i:s[++o]=i),s.length<2?l[0]?function(t){return function(e){return t(e)+\\\"\\\"}}(l[0].x):function(t){return function(){return t}}(e):(e=l.length,function(t){for(var r,n=0;n<e;++n)s[(r=l[n]).i]=r.x(t);return s.join(\\\"\\\")})}function _(t,r){var n,i=typeof r;return null==r||\\\"boolean\\\"===i?a(r):(\\\"number\\\"===i?v:\\\"string\\\"===i?(n=e.color(r))?(r=n,u):b:r instanceof e.color?u:r instanceof Date?g:Array.isArray(r)?d:\\\"function\\\"!=typeof r.valueOf&&\\\"function\\\"!=typeof r.toString||isNaN(r)?m:v)(t,r)}var w,k,T,A,M=180/Math.PI,S={translateX:0,translateY:0,rotate:0,skewX:0,scaleX:1,scaleY:1};function E(t,e,r,n,i,a){var o,s,l;return(o=Math.sqrt(t*t+e*e))&&(t/=o,e/=o),(l=t*r+e*n)&&(r-=t*l,n-=e*l),(s=Math.sqrt(r*r+n*n))&&(r/=s,n/=s,l/=s),t*n<e*r&&(t=-t,e=-e,l=-l,o=-o),{translateX:i,translateY:a,rotate:Math.atan2(e,t)*M,skewX:Math.atan(l)*M,scaleX:o,scaleY:s}}function C(t,e,r,n){function i(t){return t.length?t.pop()+\\\" \\\":\\\"\\\"}return function(a,o){var s=[],l=[];return a=t(a),o=t(o),function(t,n,i,a,o,s){if(t!==i||n!==a){var l=o.push(\\\"translate(\\\",null,e,null,r);s.push({i:l-4,x:v(t,i)},{i:l-2,x:v(n,a)})}else(i||a)&&o.push(\\\"translate(\\\"+i+e+a+r)}(a.translateX,a.translateY,o.translateX,o.translateY,s,l),function(t,e,r,a){t!==e?(t-e>180?e+=360:e-t>180&&(t+=360),a.push({i:r.push(i(r)+\\\"rotate(\\\",null,n)-2,x:v(t,e)})):e&&r.push(i(r)+\\\"rotate(\\\"+e+n)}(a.rotate,o.rotate,s,l),function(t,e,r,a){t!==e?a.push({i:r.push(i(r)+\\\"skewX(\\\",null,n)-2,x:v(t,e)}):e&&r.push(i(r)+\\\"skewX(\\\"+e+n)}(a.skewX,o.skewX,s,l),function(t,e,r,n,a,o){if(t!==r||e!==n){var s=a.push(i(a)+\\\"scale(\\\",null,\\\",\\\",null,\\\")\\\");o.push({i:s-4,x:v(t,r)},{i:s-2,x:v(e,n)})}else 1===r&&1===n||a.push(i(a)+\\\"scale(\\\"+r+\\\",\\\"+n+\\\")\\\")}(a.scaleX,a.scaleY,o.scaleX,o.scaleY,s,l),a=o=null,function(t){for(var e,r=-1,n=l.length;++r<n;)s[(e=l[r]).i]=e.x(t);return s.join(\\\"\\\")}}}var L=C(function(t){return\\\"none\\\"===t?S:(w||(w=document.createElement(\\\"DIV\\\"),k=document.documentElement,T=document.defaultView),w.style.transform=t,t=T.getComputedStyle(k.appendChild(w),null).getPropertyValue(\\\"transform\\\"),k.removeChild(w),E(+(t=t.slice(7,-1).split(\\\",\\\"))[0],+t[1],+t[2],+t[3],+t[4],+t[5]))},\\\"px, \\\",\\\"px)\\\",\\\"deg)\\\"),z=C(function(t){return null==t?S:(A||(A=document.createElementNS(\\\"http://www.w3.org/2000/svg\\\",\\\"g\\\")),A.setAttribute(\\\"transform\\\",t),(t=A.transform.baseVal.consolidate())?E((t=t.matrix).a,t.b,t.c,t.d,t.e,t.f):S)},\\\", \\\",\\\")\\\",\\\")\\\"),O=Math.SQRT2,I=2,D=4,P=1e-12;function R(t){return((t=Math.exp(t))+1/t)/2}function F(t){return function(r,n){var i=t((r=e.hsl(r)).h,(n=e.hsl(n)).h),a=c(r.s,n.s),o=c(r.l,n.l),s=c(r.opacity,n.opacity);return function(t){return r.h=i(t),r.s=a(t),r.l=o(t),r.opacity=s(t),r+\\\"\\\"}}}var B=F(s),N=F(c);function j(t){return function(r,n){var i=t((r=e.hcl(r)).h,(n=e.hcl(n)).h),a=c(r.c,n.c),o=c(r.l,n.l),s=c(r.opacity,n.opacity);return function(t){return r.h=i(t),r.c=a(t),r.l=o(t),r.opacity=s(t),r+\\\"\\\"}}}var V=j(s),U=j(c);function H(t){return function r(n){function i(r,i){var a=t((r=e.cubehelix(r)).h,(i=e.cubehelix(i)).h),o=c(r.s,i.s),s=c(r.l,i.l),l=c(r.opacity,i.opacity);return function(t){return r.h=a(t),r.s=o(t),r.l=s(Math.pow(t,n)),r.opacity=l(t),r+\\\"\\\"}}return n=+n,i.gamma=r,i}(1)}var q=H(s),G=H(c);t.interpolate=_,t.interpolateArray=d,t.interpolateBasis=n,t.interpolateBasisClosed=i,t.interpolateDate=g,t.interpolateDiscrete=function(t){var e=t.length;return function(r){return t[Math.max(0,Math.min(e-1,Math.floor(r*e)))]}},t.interpolateHue=function(t,e){var r=s(+t,+e);return function(t){var e=r(t);return e-360*Math.floor(e/360)}},t.interpolateNumber=v,t.interpolateObject=m,t.interpolateRound=function(t,e){return e-=t=+t,function(r){return Math.round(t+e*r)}},t.interpolateString=b,t.interpolateTransformCss=L,t.interpolateTransformSvg=z,t.interpolateZoom=function(t,e){var r,n,i=t[0],a=t[1],o=t[2],s=e[0],l=e[1],c=e[2],u=s-i,f=l-a,h=u*u+f*f;if(h<P)n=Math.log(c/o)/O,r=function(t){return[i+t*u,a+t*f,o*Math.exp(O*t*n)]};else{var p=Math.sqrt(h),d=(c*c-o*o+D*h)/(2*o*I*p),g=(c*c-o*o-D*h)/(2*c*I*p),v=Math.log(Math.sqrt(d*d+1)-d),m=Math.log(Math.sqrt(g*g+1)-g);n=(m-v)/O,r=function(t){var e,r=t*n,s=R(v),l=o/(I*p)*(s*(e=O*r+v,((e=Math.exp(2*e))-1)/(e+1))-function(t){return((t=Math.exp(t))-1/t)/2}(v));return[i+l*u,a+l*f,o*s/R(O*r+v)]}}return r.duration=1e3*n,r},t.interpolateRgb=u,t.interpolateRgbBasis=h,t.interpolateRgbBasisClosed=p,t.interpolateHsl=B,t.interpolateHslLong=N,t.interpolateLab=function(t,r){var n=c((t=e.lab(t)).l,(r=e.lab(r)).l),i=c(t.a,r.a),a=c(t.b,r.b),o=c(t.opacity,r.opacity);return function(e){return t.l=n(e),t.a=i(e),t.b=a(e),t.opacity=o(e),t+\\\"\\\"}},t.interpolateHcl=V,t.interpolateHclLong=U,t.interpolateCubehelix=q,t.interpolateCubehelixLong=G,t.piecewise=function(t,e){for(var r=0,n=e.length-1,i=e[0],a=new Array(n<0?0:n);r<n;)a[r]=t(i,i=e[++r]);return function(t){var e=Math.max(0,Math.min(n-1,Math.floor(t*=n)));return a[e](t-e)}},t.quantize=function(t,e){for(var r=new Array(e),n=0;n<e;++n)r[n]=t(n/(e-1));return r},Object.defineProperty(t,\\\"__esModule\\\",{value:!0})},\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?i(r,t(\\\"d3-color\\\")):i(n.d3=n.d3||{},n.d3)},{\\\"d3-color\\\":147}],152:[function(t,e,r){var n;n=this,function(t){\\\"use strict\\\";var e=Math.PI,r=2*e,n=r-1e-6;function i(){this._x0=this._y0=this._x1=this._y1=null,this._=\\\"\\\"}function a(){return new i}i.prototype=a.prototype={constructor:i,moveTo:function(t,e){this._+=\\\"M\\\"+(this._x0=this._x1=+t)+\\\",\\\"+(this._y0=this._y1=+e)},closePath:function(){null!==this._x1&&(this._x1=this._x0,this._y1=this._y0,this._+=\\\"Z\\\")},lineTo:function(t,e){this._+=\\\"L\\\"+(this._x1=+t)+\\\",\\\"+(this._y1=+e)},quadraticCurveTo:function(t,e,r,n){this._+=\\\"Q\\\"+ +t+\\\",\\\"+ +e+\\\",\\\"+(this._x1=+r)+\\\",\\\"+(this._y1=+n)},bezierCurveTo:function(t,e,r,n,i,a){this._+=\\\"C\\\"+ +t+\\\",\\\"+ +e+\\\",\\\"+ +r+\\\",\\\"+ +n+\\\",\\\"+(this._x1=+i)+\\\",\\\"+(this._y1=+a)},arcTo:function(t,r,n,i,a){t=+t,r=+r,n=+n,i=+i,a=+a;var o=this._x1,s=this._y1,l=n-t,c=i-r,u=o-t,f=s-r,h=u*u+f*f;if(a<0)throw new Error(\\\"negative radius: \\\"+a);if(null===this._x1)this._+=\\\"M\\\"+(this._x1=t)+\\\",\\\"+(this._y1=r);else if(h>1e-6)if(Math.abs(f*l-c*u)>1e-6&&a){var p=n-o,d=i-s,g=l*l+c*c,v=p*p+d*d,m=Math.sqrt(g),y=Math.sqrt(h),x=a*Math.tan((e-Math.acos((g+h-v)/(2*m*y)))/2),b=x/y,_=x/m;Math.abs(b-1)>1e-6&&(this._+=\\\"L\\\"+(t+b*u)+\\\",\\\"+(r+b*f)),this._+=\\\"A\\\"+a+\\\",\\\"+a+\\\",0,0,\\\"+ +(f*p>u*d)+\\\",\\\"+(this._x1=t+_*l)+\\\",\\\"+(this._y1=r+_*c)}else this._+=\\\"L\\\"+(this._x1=t)+\\\",\\\"+(this._y1=r);else;},arc:function(t,i,a,o,s,l){t=+t,i=+i;var c=(a=+a)*Math.cos(o),u=a*Math.sin(o),f=t+c,h=i+u,p=1^l,d=l?o-s:s-o;if(a<0)throw new Error(\\\"negative radius: \\\"+a);null===this._x1?this._+=\\\"M\\\"+f+\\\",\\\"+h:(Math.abs(this._x1-f)>1e-6||Math.abs(this._y1-h)>1e-6)&&(this._+=\\\"L\\\"+f+\\\",\\\"+h),a&&(d<0&&(d=d%r+r),d>n?this._+=\\\"A\\\"+a+\\\",\\\"+a+\\\",0,1,\\\"+p+\\\",\\\"+(t-c)+\\\",\\\"+(i-u)+\\\"A\\\"+a+\\\",\\\"+a+\\\",0,1,\\\"+p+\\\",\\\"+(this._x1=f)+\\\",\\\"+(this._y1=h):d>1e-6&&(this._+=\\\"A\\\"+a+\\\",\\\"+a+\\\",0,\\\"+ +(d>=e)+\\\",\\\"+p+\\\",\\\"+(this._x1=t+a*Math.cos(s))+\\\",\\\"+(this._y1=i+a*Math.sin(s))))},rect:function(t,e,r,n){this._+=\\\"M\\\"+(this._x0=this._x1=+t)+\\\",\\\"+(this._y0=this._y1=+e)+\\\"h\\\"+ +r+\\\"v\\\"+ +n+\\\"h\\\"+-r+\\\"Z\\\"},toString:function(){return this._}},t.path=a,Object.defineProperty(t,\\\"__esModule\\\",{value:!0})}(\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?r:n.d3=n.d3||{})},{}],153:[function(t,e,r){var n;n=this,function(t){\\\"use strict\\\";function e(t,e,r,n){if(isNaN(e)||isNaN(r))return t;var i,a,o,s,l,c,u,f,h,p=t._root,d={data:n},g=t._x0,v=t._y0,m=t._x1,y=t._y1;if(!p)return t._root=d,t;for(;p.length;)if((c=e>=(a=(g+m)/2))?g=a:m=a,(u=r>=(o=(v+y)/2))?v=o:y=o,i=p,!(p=p[f=u<<1|c]))return i[f]=d,t;if(s=+t._x.call(null,p.data),l=+t._y.call(null,p.data),e===s&&r===l)return d.next=p,i?i[f]=d:t._root=d,t;do{i=i?i[f]=new Array(4):t._root=new Array(4),(c=e>=(a=(g+m)/2))?g=a:m=a,(u=r>=(o=(v+y)/2))?v=o:y=o}while((f=u<<1|c)==(h=(l>=o)<<1|s>=a));return i[h]=p,i[f]=d,t}var r=function(t,e,r,n,i){this.node=t,this.x0=e,this.y0=r,this.x1=n,this.y1=i};function n(t){return t[0]}function i(t){return t[1]}function a(t,e,r){var a=new o(null==e?n:e,null==r?i:r,NaN,NaN,NaN,NaN);return null==t?a:a.addAll(t)}function o(t,e,r,n,i,a){this._x=t,this._y=e,this._x0=r,this._y0=n,this._x1=i,this._y1=a,this._root=void 0}function s(t){for(var e={data:t.data},r=e;t=t.next;)r=r.next={data:t.data};return e}var l=a.prototype=o.prototype;l.copy=function(){var t,e,r=new o(this._x,this._y,this._x0,this._y0,this._x1,this._y1),n=this._root;if(!n)return r;if(!n.length)return r._root=s(n),r;for(t=[{source:n,target:r._root=new Array(4)}];n=t.pop();)for(var i=0;i<4;++i)(e=n.source[i])&&(e.length?t.push({source:e,target:n.target[i]=new Array(4)}):n.target[i]=s(e));return r},l.add=function(t){var r=+this._x.call(null,t),n=+this._y.call(null,t);return e(this.cover(r,n),r,n,t)},l.addAll=function(t){var r,n,i,a,o=t.length,s=new Array(o),l=new Array(o),c=1/0,u=1/0,f=-1/0,h=-1/0;for(n=0;n<o;++n)isNaN(i=+this._x.call(null,r=t[n]))||isNaN(a=+this._y.call(null,r))||(s[n]=i,l[n]=a,i<c&&(c=i),i>f&&(f=i),a<u&&(u=a),a>h&&(h=a));for(f<c&&(c=this._x0,f=this._x1),h<u&&(u=this._y0,h=this._y1),this.cover(c,u).cover(f,h),n=0;n<o;++n)e(this,s[n],l[n],t[n]);return this},l.cover=function(t,e){if(isNaN(t=+t)||isNaN(e=+e))return this;var r=this._x0,n=this._y0,i=this._x1,a=this._y1;if(isNaN(r))i=(r=Math.floor(t))+1,a=(n=Math.floor(e))+1;else{if(!(r>t||t>i||n>e||e>a))return this;var o,s,l=i-r,c=this._root;switch(s=(e<(n+a)/2)<<1|t<(r+i)/2){case 0:do{(o=new Array(4))[s]=c,c=o}while(a=n+(l*=2),t>(i=r+l)||e>a);break;case 1:do{(o=new Array(4))[s]=c,c=o}while(a=n+(l*=2),(r=i-l)>t||e>a);break;case 2:do{(o=new Array(4))[s]=c,c=o}while(n=a-(l*=2),t>(i=r+l)||n>e);break;case 3:do{(o=new Array(4))[s]=c,c=o}while(n=a-(l*=2),(r=i-l)>t||n>e)}this._root&&this._root.length&&(this._root=c)}return this._x0=r,this._y0=n,this._x1=i,this._y1=a,this},l.data=function(){var t=[];return this.visit(function(e){if(!e.length)do{t.push(e.data)}while(e=e.next)}),t},l.extent=function(t){return arguments.length?this.cover(+t[0][0],+t[0][1]).cover(+t[1][0],+t[1][1]):isNaN(this._x0)?void 0:[[this._x0,this._y0],[this._x1,this._y1]]},l.find=function(t,e,n){var i,a,o,s,l,c,u,f=this._x0,h=this._y0,p=this._x1,d=this._y1,g=[],v=this._root;for(v&&g.push(new r(v,f,h,p,d)),null==n?n=1/0:(f=t-n,h=e-n,p=t+n,d=e+n,n*=n);c=g.pop();)if(!(!(v=c.node)||(a=c.x0)>p||(o=c.y0)>d||(s=c.x1)<f||(l=c.y1)<h))if(v.length){var m=(a+s)/2,y=(o+l)/2;g.push(new r(v[3],m,y,s,l),new r(v[2],a,y,m,l),new r(v[1],m,o,s,y),new r(v[0],a,o,m,y)),(u=(e>=y)<<1|t>=m)&&(c=g[g.length-1],g[g.length-1]=g[g.length-1-u],g[g.length-1-u]=c)}else{var x=t-+this._x.call(null,v.data),b=e-+this._y.call(null,v.data),_=x*x+b*b;if(_<n){var w=Math.sqrt(n=_);f=t-w,h=e-w,p=t+w,d=e+w,i=v.data}}return i},l.remove=function(t){if(isNaN(a=+this._x.call(null,t))||isNaN(o=+this._y.call(null,t)))return this;var e,r,n,i,a,o,s,l,c,u,f,h,p=this._root,d=this._x0,g=this._y0,v=this._x1,m=this._y1;if(!p)return this;if(p.length)for(;;){if((c=a>=(s=(d+v)/2))?d=s:v=s,(u=o>=(l=(g+m)/2))?g=l:m=l,e=p,!(p=p[f=u<<1|c]))return this;if(!p.length)break;(e[f+1&3]||e[f+2&3]||e[f+3&3])&&(r=e,h=f)}for(;p.data!==t;)if(n=p,!(p=p.next))return this;return(i=p.next)&&delete p.next,n?(i?n.next=i:delete n.next,this):e?(i?e[f]=i:delete e[f],(p=e[0]||e[1]||e[2]||e[3])&&p===(e[3]||e[2]||e[1]||e[0])&&!p.length&&(r?r[h]=p:this._root=p),this):(this._root=i,this)},l.removeAll=function(t){for(var e=0,r=t.length;e<r;++e)this.remove(t[e]);return this},l.root=function(){return this._root},l.size=function(){var t=0;return this.visit(function(e){if(!e.length)do{++t}while(e=e.next)}),t},l.visit=function(t){var e,n,i,a,o,s,l=[],c=this._root;for(c&&l.push(new r(c,this._x0,this._y0,this._x1,this._y1));e=l.pop();)if(!t(c=e.node,i=e.x0,a=e.y0,o=e.x1,s=e.y1)&&c.length){var u=(i+o)/2,f=(a+s)/2;(n=c[3])&&l.push(new r(n,u,f,o,s)),(n=c[2])&&l.push(new r(n,i,f,u,s)),(n=c[1])&&l.push(new r(n,u,a,o,f)),(n=c[0])&&l.push(new r(n,i,a,u,f))}return this},l.visitAfter=function(t){var e,n=[],i=[];for(this._root&&n.push(new r(this._root,this._x0,this._y0,this._x1,this._y1));e=n.pop();){var a=e.node;if(a.length){var o,s=e.x0,l=e.y0,c=e.x1,u=e.y1,f=(s+c)/2,h=(l+u)/2;(o=a[0])&&n.push(new r(o,s,l,f,h)),(o=a[1])&&n.push(new r(o,f,l,c,h)),(o=a[2])&&n.push(new r(o,s,h,f,u)),(o=a[3])&&n.push(new r(o,f,h,c,u))}i.push(e)}for(;e=i.pop();)t(e.node,e.x0,e.y0,e.x1,e.y1);return this},l.x=function(t){return arguments.length?(this._x=t,this):this._x},l.y=function(t){return arguments.length?(this._y=t,this):this._y},t.quadtree=a,Object.defineProperty(t,\\\"__esModule\\\",{value:!0})}(\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?r:n.d3=n.d3||{})},{}],154:[function(t,e,r){var n,i;n=this,i=function(t,e,r,n,i){\\\"use strict\\\";function a(t){return t.target.depth}function o(t,e){return t.sourceLinks.length?t.depth:e-1}function s(t){return function(){return t}}i=i&&i.hasOwnProperty(\\\"default\\\")?i.default:i;var l=\\\"function\\\"==typeof Symbol&&\\\"symbol\\\"==typeof Symbol.iterator?function(t){return typeof t}:function(t){return t&&\\\"function\\\"==typeof Symbol&&t.constructor===Symbol&&t!==Symbol.prototype?\\\"symbol\\\":typeof t};function c(t,e){return f(t.source,e.source)||t.index-e.index}function u(t,e){return f(t.target,e.target)||t.index-e.index}function f(t,e){return t.partOfCycle===e.partOfCycle?t.y0-e.y0:\\\"top\\\"===t.circularLinkType||\\\"bottom\\\"===e.circularLinkType?-1:1}function h(t){return t.value}function p(t){return(t.y0+t.y1)/2}function d(t){return p(t.source)}function g(t){return p(t.target)}function v(t){return t.index}function m(t){return t.nodes}function y(t){return t.links}function x(t,e){var r=t.get(e);if(!r)throw new Error(\\\"missing: \\\"+e);return r}function b(t,e){return e(t)}var _=25,w=10,k=.3;function T(t,e){var r=0,n=0;t.links.forEach(function(i){i.circular&&(i.source.circularLinkType||i.target.circularLinkType?i.circularLinkType=i.source.circularLinkType?i.source.circularLinkType:i.target.circularLinkType:i.circularLinkType=r<n?\\\"top\\\":\\\"bottom\\\",\\\"top\\\"==i.circularLinkType?r+=1:n+=1,t.nodes.forEach(function(t){b(t,e)!=b(i.source,e)&&b(t,e)!=b(i.target,e)||(t.circularLinkType=i.circularLinkType)}))}),t.links.forEach(function(t){t.circular&&(t.source.circularLinkType==t.target.circularLinkType&&(t.circularLinkType=t.source.circularLinkType),Y(t,e)&&(t.circularLinkType=t.source.circularLinkType))})}function A(t){var e=Math.abs(t.y1-t.y0),r=Math.abs(t.target.x0-t.source.x1);return Math.atan(r/e)}function M(t,e){var r=0;t.sourceLinks.forEach(function(t){r=t.circular&&!Y(t,e)?r+1:r});var n=0;return t.targetLinks.forEach(function(t){n=t.circular&&!Y(t,e)?n+1:n}),r+n}function S(t){var e=t.source.sourceLinks,r=0;e.forEach(function(t){r=t.circular?r+1:r});var n=t.target.targetLinks,i=0;return n.forEach(function(t){i=t.circular?i+1:i}),!(r>1||i>1)}function E(t,e,r){return t.sort(L),t.forEach(function(n,i){var a,o,s=0;if(Y(n,r)&&S(n))n.circularPathData.verticalBuffer=s+n.width/2;else{for(var l=0;l<i;l++)if(a=t[i],o=t[l],!(a.source.column<o.target.column||a.target.column>o.source.column)){var c=t[l].circularPathData.verticalBuffer+t[l].width/2+e;s=c>s?c:s}n.circularPathData.verticalBuffer=s+n.width/2}}),t}function C(t,r,i,a){var o=e.min(t.links,function(t){return t.source.y0});t.links.forEach(function(t){t.circular&&(t.circularPathData={})}),E(t.links.filter(function(t){return\\\"top\\\"==t.circularLinkType}),r,a),E(t.links.filter(function(t){return\\\"bottom\\\"==t.circularLinkType}),r,a),t.links.forEach(function(e){if(e.circular){if(e.circularPathData.arcRadius=e.width+w,e.circularPathData.leftNodeBuffer=5,e.circularPathData.rightNodeBuffer=5,e.circularPathData.sourceWidth=e.source.x1-e.source.x0,e.circularPathData.sourceX=e.source.x0+e.circularPathData.sourceWidth,e.circularPathData.targetX=e.target.x0,e.circularPathData.sourceY=e.y0,e.circularPathData.targetY=e.y1,Y(e,a)&&S(e))e.circularPathData.leftSmallArcRadius=w+e.width/2,e.circularPathData.leftLargeArcRadius=w+e.width/2,e.circularPathData.rightSmallArcRadius=w+e.width/2,e.circularPathData.rightLargeArcRadius=w+e.width/2,\\\"bottom\\\"==e.circularLinkType?(e.circularPathData.verticalFullExtent=e.source.y1+_+e.circularPathData.verticalBuffer,e.circularPathData.verticalLeftInnerExtent=e.circularPathData.verticalFullExtent-e.circularPathData.leftLargeArcRadius,e.circularPathData.verticalRightInnerExtent=e.circularPathData.verticalFullExtent-e.circularPathData.rightLargeArcRadius):(e.circularPathData.verticalFullExtent=e.source.y0-_-e.circularPathData.verticalBuffer,e.circularPathData.verticalLeftInnerExtent=e.circularPathData.verticalFullExtent+e.circularPathData.leftLargeArcRadius,e.circularPathData.verticalRightInnerExtent=e.circularPathData.verticalFullExtent+e.circularPathData.rightLargeArcRadius);else{var s=e.source.column,l=e.circularLinkType,c=t.links.filter(function(t){return t.source.column==s&&t.circularLinkType==l});\\\"bottom\\\"==e.circularLinkType?c.sort(O):c.sort(z);var u=0;c.forEach(function(t,n){t.circularLinkID==e.circularLinkID&&(e.circularPathData.leftSmallArcRadius=w+e.width/2+u,e.circularPathData.leftLargeArcRadius=w+e.width/2+n*r+u),u+=t.width}),s=e.target.column,c=t.links.filter(function(t){return t.target.column==s&&t.circularLinkType==l}),\\\"bottom\\\"==e.circularLinkType?c.sort(D):c.sort(I),u=0,c.forEach(function(t,n){t.circularLinkID==e.circularLinkID&&(e.circularPathData.rightSmallArcRadius=w+e.width/2+u,e.circularPathData.rightLargeArcRadius=w+e.width/2+n*r+u),u+=t.width}),\\\"bottom\\\"==e.circularLinkType?(e.circularPathData.verticalFullExtent=Math.max(i,e.source.y1,e.target.y1)+_+e.circularPathData.verticalBuffer,e.circularPathData.verticalLeftInnerExtent=e.circularPathData.verticalFullExtent-e.circularPathData.leftLargeArcRadius,e.circularPathData.verticalRightInnerExtent=e.circularPathData.verticalFullExtent-e.circularPathData.rightLargeArcRadius):(e.circularPathData.verticalFullExtent=o-_-e.circularPathData.verticalBuffer,e.circularPathData.verticalLeftInnerExtent=e.circularPathData.verticalFullExtent+e.circularPathData.leftLargeArcRadius,e.circularPathData.verticalRightInnerExtent=e.circularPathData.verticalFullExtent+e.circularPathData.rightLargeArcRadius)}e.circularPathData.leftInnerExtent=e.circularPathData.sourceX+e.circularPathData.leftNodeBuffer,e.circularPathData.rightInnerExtent=e.circularPathData.targetX-e.circularPathData.rightNodeBuffer,e.circularPathData.leftFullExtent=e.circularPathData.sourceX+e.circularPathData.leftLargeArcRadius+e.circularPathData.leftNodeBuffer,e.circularPathData.rightFullExtent=e.circularPathData.targetX-e.circularPathData.rightLargeArcRadius-e.circularPathData.rightNodeBuffer}if(e.circular)e.path=function(t){var e=\\\"\\\";e=\\\"top\\\"==t.circularLinkType?\\\"M\\\"+t.circularPathData.sourceX+\\\" \\\"+t.circularPathData.sourceY+\\\" L\\\"+t.circularPathData.leftInnerExtent+\\\" \\\"+t.circularPathData.sourceY+\\\" A\\\"+t.circularPathData.leftLargeArcRadius+\\\" \\\"+t.circularPathData.leftSmallArcRadius+\\\" 0 0 0 \\\"+t.circularPathData.leftFullExtent+\\\" \\\"+(t.circularPathData.sourceY-t.circularPathData.leftSmallArcRadius)+\\\" L\\\"+t.circularPathData.leftFullExtent+\\\" \\\"+t.circularPathData.verticalLeftInnerExtent+\\\" A\\\"+t.circularPathData.leftLargeArcRadius+\\\" \\\"+t.circularPathData.leftLargeArcRadius+\\\" 0 0 0 \\\"+t.circularPathData.leftInnerExtent+\\\" \\\"+t.circularPathData.verticalFullExtent+\\\" L\\\"+t.circularPathData.rightInnerExtent+\\\" \\\"+t.circularPathData.verticalFullExtent+\\\" A\\\"+t.circularPathData.rightLargeArcRadius+\\\" \\\"+t.circularPathData.rightLargeArcRadius+\\\" 0 0 0 \\\"+t.circularPathData.rightFullExtent+\\\" \\\"+t.circularPathData.verticalRightInnerExtent+\\\" L\\\"+t.circularPathData.rightFullExtent+\\\" \\\"+(t.circularPathData.targetY-t.circularPathData.rightSmallArcRadius)+\\\" A\\\"+t.circularPathData.rightLargeArcRadius+\\\" \\\"+t.circularPathData.rightSmallArcRadius+\\\" 0 0 0 \\\"+t.circularPathData.rightInnerExtent+\\\" \\\"+t.circularPathData.targetY+\\\" L\\\"+t.circularPathData.targetX+\\\" \\\"+t.circularPathData.targetY:\\\"M\\\"+t.circularPathData.sourceX+\\\" \\\"+t.circularPathData.sourceY+\\\" L\\\"+t.circularPathData.leftInnerExtent+\\\" \\\"+t.circularPathData.sourceY+\\\" A\\\"+t.circularPathData.leftLargeArcRadius+\\\" \\\"+t.circularPathData.leftSmallArcRadius+\\\" 0 0 1 \\\"+t.circularPathData.leftFullExtent+\\\" \\\"+(t.circularPathData.sourceY+t.circularPathData.leftSmallArcRadius)+\\\" L\\\"+t.circularPathData.leftFullExtent+\\\" \\\"+t.circularPathData.verticalLeftInnerExtent+\\\" A\\\"+t.circularPathData.leftLargeArcRadius+\\\" \\\"+t.circularPathData.leftLargeArcRadius+\\\" 0 0 1 \\\"+t.circularPathData.leftInnerExtent+\\\" \\\"+t.circularPathData.verticalFullExtent+\\\" L\\\"+t.circularPathData.rightInnerExtent+\\\" \\\"+t.circularPathData.verticalFullExtent+\\\" A\\\"+t.circularPathData.rightLargeArcRadius+\\\" \\\"+t.circularPathData.rightLargeArcRadius+\\\" 0 0 1 \\\"+t.circularPathData.rightFullExtent+\\\" \\\"+t.circularPathData.verticalRightInnerExtent+\\\" L\\\"+t.circularPathData.rightFullExtent+\\\" \\\"+(t.circularPathData.targetY+t.circularPathData.rightSmallArcRadius)+\\\" A\\\"+t.circularPathData.rightLargeArcRadius+\\\" \\\"+t.circularPathData.rightSmallArcRadius+\\\" 0 0 1 \\\"+t.circularPathData.rightInnerExtent+\\\" \\\"+t.circularPathData.targetY+\\\" L\\\"+t.circularPathData.targetX+\\\" \\\"+t.circularPathData.targetY;return e}(e);else{var f=n.linkHorizontal().source(function(t){return[t.source.x0+(t.source.x1-t.source.x0),t.y0]}).target(function(t){return[t.target.x0,t.y1]});e.path=f(e)}})}function L(t,e){return P(t)==P(e)?\\\"bottom\\\"==t.circularLinkType?O(t,e):z(t,e):P(e)-P(t)}function z(t,e){return t.y0-e.y0}function O(t,e){return e.y0-t.y0}function I(t,e){return t.y1-e.y1}function D(t,e){return e.y1-t.y1}function P(t){return t.target.column-t.source.column}function R(t){return t.target.x0-t.source.x1}function F(t,e){var r=A(t),n=R(e)/Math.tan(r);return\\\"up\\\"==G(t)?t.y1+n:t.y1-n}function B(t,e){var r=A(t),n=R(e)/Math.tan(r);return\\\"up\\\"==G(t)?t.y1-n:t.y1+n}function N(t,e,r,n){t.links.forEach(function(i){if(!i.circular&&i.target.column-i.source.column>1){var a=i.source.column+1,o=i.target.column-1,s=1,l=o-a+1;for(s=1;a<=o;a++,s++)t.nodes.forEach(function(o){if(o.column==a){var c,u=s/(l+1),f=Math.pow(1-u,3),h=3*u*Math.pow(1-u,2),p=3*Math.pow(u,2)*(1-u),d=Math.pow(u,3),g=f*i.y0+h*i.y0+p*i.y1+d*i.y1,v=g-i.width/2,m=g+i.width/2;v>o.y0&&v<o.y1?(c=o.y1-v+10,c=\\\"bottom\\\"==o.circularLinkType?c:-c,o=V(o,c,e,r),t.nodes.forEach(function(t){b(t,n)!=b(o,n)&&t.column==o.column&&j(o,t)&&V(t,c,e,r)})):m>o.y0&&m<o.y1?(c=m-o.y0+10,o=V(o,c,e,r),t.nodes.forEach(function(t){b(t,n)!=b(o,n)&&t.column==o.column&&t.y0<o.y1&&t.y1>o.y1&&V(t,c,e,r)})):v<o.y0&&m>o.y1&&(c=m-o.y0+10,o=V(o,c,e,r),t.nodes.forEach(function(t){b(t,n)!=b(o,n)&&t.column==o.column&&t.y0<o.y1&&t.y1>o.y1&&V(t,c,e,r)}))}})}})}function j(t,e){return t.y0>e.y0&&t.y0<e.y1||(t.y1>e.y0&&t.y1<e.y1||t.y0<e.y0&&t.y1>e.y1)}function V(t,e,r,n){return t.y0+e>=r&&t.y1+e<=n&&(t.y0=t.y0+e,t.y1=t.y1+e,t.targetLinks.forEach(function(t){t.y1=t.y1+e}),t.sourceLinks.forEach(function(t){t.y0=t.y0+e})),t}function U(t,e,r,n){t.nodes.forEach(function(i){n&&i.y+(i.y1-i.y0)>e&&(i.y=i.y-(i.y+(i.y1-i.y0)-e));var a=t.links.filter(function(t){return b(t.source,r)==b(i,r)}),o=a.length;o>1&&a.sort(function(t,e){if(!t.circular&&!e.circular){if(t.target.column==e.target.column)return t.y1-e.y1;if(!q(t,e))return t.y1-e.y1;if(t.target.column>e.target.column){var r=B(e,t);return t.y1-r}if(e.target.column>t.target.column)return B(t,e)-e.y1}return t.circular&&!e.circular?\\\"top\\\"==t.circularLinkType?-1:1:e.circular&&!t.circular?\\\"top\\\"==e.circularLinkType?1:-1:t.circular&&e.circular?t.circularLinkType===e.circularLinkType&&\\\"top\\\"==t.circularLinkType?t.target.column===e.target.column?t.target.y1-e.target.y1:e.target.column-t.target.column:t.circularLinkType===e.circularLinkType&&\\\"bottom\\\"==t.circularLinkType?t.target.column===e.target.column?e.target.y1-t.target.y1:t.target.column-e.target.column:\\\"top\\\"==t.circularLinkType?-1:1:void 0});var s=i.y0;a.forEach(function(t){t.y0=s+t.width/2,s+=t.width}),a.forEach(function(t,e){if(\\\"bottom\\\"==t.circularLinkType){for(var r=e+1,n=0;r<o;r++)n+=a[r].width;t.y0=i.y1-n-t.width/2}})})}function H(t,e,r){t.nodes.forEach(function(e){var n=t.links.filter(function(t){return b(t.target,r)==b(e,r)}),i=n.length;i>1&&n.sort(function(t,e){if(!t.circular&&!e.circular){if(t.source.column==e.source.column)return t.y0-e.y0;if(!q(t,e))return t.y0-e.y0;if(e.source.column<t.source.column){var r=F(e,t);return t.y0-r}if(t.source.column<e.source.column)return F(t,e)-e.y0}return t.circular&&!e.circular?\\\"top\\\"==t.circularLinkType?-1:1:e.circular&&!t.circular?\\\"top\\\"==e.circularLinkType?1:-1:t.circular&&e.circular?t.circularLinkType===e.circularLinkType&&\\\"top\\\"==t.circularLinkType?t.source.column===e.source.column?t.source.y1-e.source.y1:t.source.column-e.source.column:t.circularLinkType===e.circularLinkType&&\\\"bottom\\\"==t.circularLinkType?t.source.column===e.source.column?t.source.y1-e.source.y1:e.source.column-t.source.column:\\\"top\\\"==t.circularLinkType?-1:1:void 0});var a=e.y0;n.forEach(function(t){t.y1=a+t.width/2,a+=t.width}),n.forEach(function(t,r){if(\\\"bottom\\\"==t.circularLinkType){for(var a=r+1,o=0;a<i;a++)o+=n[a].width;t.y1=e.y1-o-t.width/2}})})}function q(t,e){return G(t)==G(e)}function G(t){return t.y0-t.y1>0?\\\"up\\\":\\\"down\\\"}function Y(t,e){return b(t.source,e)==b(t.target,e)}t.sankeyCircular=function(){var t,n,a=0,b=0,A=1,S=1,E=24,L=v,z=o,O=m,I=y,D=32,P=2,R=null;function F(){var o={nodes:O.apply(null,arguments),links:I.apply(null,arguments)};!function(t){t.nodes.forEach(function(t,e){t.index=e,t.sourceLinks=[],t.targetLinks=[]});var e=r.map(t.nodes,L);t.links.forEach(function(t,r){t.index=r;var n=t.source,i=t.target;\\\"object\\\"!==(\\\"undefined\\\"==typeof n?\\\"undefined\\\":l(n))&&(n=t.source=x(e,n)),\\\"object\\\"!==(\\\"undefined\\\"==typeof i?\\\"undefined\\\":l(i))&&(i=t.target=x(e,i)),n.sourceLinks.push(t),i.targetLinks.push(t)})}(o),function(t,e,r){var n=0;if(null===r){for(var a=[],o=0;o<t.links.length;o++){var s=t.links[o],l=s.source.index,c=s.target.index;a[l]||(a[l]=[]),a[c]||(a[c]=[]),-1===a[l].indexOf(c)&&a[l].push(c)}var u=i(a);u.sort(function(t,e){return t.length-e.length});var f={};for(o=0;o<u.length;o++){for(var h=u[o],p=!1,d=0;d<h.length-1;d++)if(f[h[d]]||(f[h[d]]={}),f[h[d]]&&f[h[d]][h[d+1]]){p=!0;break}if(!p){var g=h.slice(-2);f[g[0]][g[1]]=!0}}t.links.forEach(function(t){var e=t.target.index,r=t.source.index;e===r||f[r]&&f[r][e]?(t.circular=!0,t.circularLinkID=n,n+=1):t.circular=!1})}else t.links.forEach(function(t){t.source[r]<t.target[r]?t.circular=!1:(t.circular=!0,t.circularLinkID=n,n+=1)})}(o,0,R),function(t){t.nodes.forEach(function(t){t.partOfCycle=!1,t.value=Math.max(e.sum(t.sourceLinks,h),e.sum(t.targetLinks,h)),t.sourceLinks.forEach(function(e){e.circular&&(t.partOfCycle=!0,t.circularLinkType=e.circularLinkType)}),t.targetLinks.forEach(function(e){e.circular&&(t.partOfCycle=!0,t.circularLinkType=e.circularLinkType)})})}(o),function(t){var e,r,n;for(e=t.nodes,r=[],n=0;e.length;++n,e=r,r=[])e.forEach(function(t){t.depth=n,t.sourceLinks.forEach(function(t){r.indexOf(t.target)<0&&!t.circular&&r.push(t.target)})});for(e=t.nodes,r=[],n=0;e.length;++n,e=r,r=[])e.forEach(function(t){t.height=n,t.targetLinks.forEach(function(t){r.indexOf(t.source)<0&&!t.circular&&r.push(t.source)})});t.nodes.forEach(function(t){t.column=Math.floor(z.call(null,t,n))})}(o),T(o,L),function(i,o,s){var l=r.nest().key(function(t){return t.column}).sortKeys(e.ascending).entries(i.nodes).map(function(t){return t.values});(function(r){if(n){var o=1/0;l.forEach(function(t){var e=S*n/(t.length+1);o=e<o?e:o}),t=o}var s=e.min(l,function(r){return(S-b-(r.length-1)*t)/e.sum(r,h)});s*=k,i.links.forEach(function(t){t.width=t.value*s});var c=function(t){var r=0,n=0,i=0,a=0,o=e.max(t.nodes,function(t){return t.column});return t.links.forEach(function(t){t.circular&&(\\\"top\\\"==t.circularLinkType?r+=t.width:n+=t.width,0==t.target.column&&(a+=t.width),t.source.column==o&&(i+=t.width))}),{top:r=r>0?r+_+w:r,bottom:n=n>0?n+_+w:n,left:a=a>0?a+_+w:a,right:i=i>0?i+_+w:i}}(i),u=function(t,r){var n=e.max(t.nodes,function(t){return t.column}),i=A-a,o=S-b,s=i+r.right+r.left,l=o+r.top+r.bottom,c=i/s,u=o/l;return a=a*c+r.left,A=0==r.right?A:A*c,b=b*u+r.top,S*=u,t.nodes.forEach(function(t){t.x0=a+t.column*((A-a-E)/n),t.x1=t.x0+E}),u}(i,c);s*=u,i.links.forEach(function(t){t.width=t.value*s}),l.forEach(function(t){var e=t.length;t.forEach(function(t,n){t.depth==l.length-1&&1==e?(t.y0=S/2-t.value*s,t.y1=t.y0+t.value*s):0==t.depth&&1==e?(t.y0=S/2-t.value*s,t.y1=t.y0+t.value*s):t.partOfCycle?0==M(t,r)?(t.y0=S/2+n,t.y1=t.y0+t.value*s):\\\"top\\\"==t.circularLinkType?(t.y0=b+n,t.y1=t.y0+t.value*s):(t.y0=S-t.value*s-n,t.y1=t.y0+t.value*s):0==c.top||0==c.bottom?(t.y0=(S-b)/e*n,t.y1=t.y0+t.value*s):(t.y0=(S-b)/2-e/2+n,t.y1=t.y0+t.value*s)})})})(s),m();for(var c=1,u=o;u>0;--u)v(c*=.99,s),m();function v(t,r){var n=l.length;l.forEach(function(i){var a=i.length,o=i[0].depth;i.forEach(function(i){var s;if(i.sourceLinks.length||i.targetLinks.length)if(i.partOfCycle&&M(i,r)>0);else if(0==o&&1==a)s=i.y1-i.y0,i.y0=S/2-s/2,i.y1=S/2+s/2;else if(o==n-1&&1==a)s=i.y1-i.y0,i.y0=S/2-s/2,i.y1=S/2+s/2;else{var l=e.mean(i.sourceLinks,g),c=e.mean(i.targetLinks,d),u=((l&&c?(l+c)/2:l||c)-p(i))*t;i.y0+=u,i.y1+=u}})})}function m(){l.forEach(function(e){var r,n,i,a=b,o=e.length;for(e.sort(f),i=0;i<o;++i)r=e[i],(n=a-r.y0)>0&&(r.y0+=n,r.y1+=n),a=r.y1+t;if((n=a-t-S)>0)for(a=r.y0-=n,r.y1-=n,i=o-2;i>=0;--i)r=e[i],(n=r.y1+t-a)>0&&(r.y0-=n,r.y1-=n),a=r.y0})}}(o,D,L),B(o);for(var s=0;s<4;s++)U(o,S,L),H(o,0,L),N(o,b,S,L),U(o,S,L),H(o,0,L);return function(t,r,n){var i=t.nodes,a=t.links,o=!1,s=!1;if(a.forEach(function(t){\\\"top\\\"==t.circularLinkType?o=!0:\\\"bottom\\\"==t.circularLinkType&&(s=!0)}),0==o||0==s){var l=e.min(i,function(t){return t.y0}),c=e.max(i,function(t){return t.y1}),u=c-l,f=n-r,h=f/u;i.forEach(function(t){var e=(t.y1-t.y0)*h;t.y0=(t.y0-l)*h,t.y1=t.y0+e}),a.forEach(function(t){t.y0=(t.y0-l)*h,t.y1=(t.y1-l)*h,t.width=t.width*h})}}(o,b,S),C(o,P,S,L),o}function B(t){t.nodes.forEach(function(t){t.sourceLinks.sort(u),t.targetLinks.sort(c)}),t.nodes.forEach(function(t){var e=t.y0,r=e,n=t.y1,i=n;t.sourceLinks.forEach(function(t){t.circular?(t.y0=n-t.width/2,n-=t.width):(t.y0=e+t.width/2,e+=t.width)}),t.targetLinks.forEach(function(t){t.circular?(t.y1=i-t.width/2,i-=t.width):(t.y1=r+t.width/2,r+=t.width)})})}return F.nodeId=function(t){return arguments.length?(L=\\\"function\\\"==typeof t?t:s(t),F):L},F.nodeAlign=function(t){return arguments.length?(z=\\\"function\\\"==typeof t?t:s(t),F):z},F.nodeWidth=function(t){return arguments.length?(E=+t,F):E},F.nodePadding=function(e){return arguments.length?(t=+e,F):t},F.nodes=function(t){return arguments.length?(O=\\\"function\\\"==typeof t?t:s(t),F):O},F.links=function(t){return arguments.length?(I=\\\"function\\\"==typeof t?t:s(t),F):I},F.size=function(t){return arguments.length?(a=b=0,A=+t[0],S=+t[1],F):[A-a,S-b]},F.extent=function(t){return arguments.length?(a=+t[0][0],A=+t[1][0],b=+t[0][1],S=+t[1][1],F):[[a,b],[A,S]]},F.iterations=function(t){return arguments.length?(D=+t,F):D},F.circularLinkGap=function(t){return arguments.length?(P=+t,F):P},F.nodePaddingRatio=function(t){return arguments.length?(n=+t,F):n},F.sortNodes=function(t){return arguments.length?(R=t,F):R},F.update=function(t){return T(t,L),B(t),t.links.forEach(function(t){t.circular&&(t.circularLinkType=t.y0+t.y1<S?\\\"top\\\":\\\"bottom\\\",t.source.circularLinkType=t.circularLinkType,t.target.circularLinkType=t.circularLinkType)}),U(t,S,L,!1),H(t,0,L),C(t,P,S,L),t},F},t.sankeyCenter=function(t){return t.targetLinks.length?t.depth:t.sourceLinks.length?e.min(t.sourceLinks,a)-1:0},t.sankeyLeft=function(t){return t.depth},t.sankeyRight=function(t,e){return e-1-t.height},t.sankeyJustify=o,Object.defineProperty(t,\\\"__esModule\\\",{value:!0})},\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?i(r,t(\\\"d3-array\\\"),t(\\\"d3-collection\\\"),t(\\\"d3-shape\\\"),t(\\\"elementary-circuits-directed-graph\\\")):i(n.d3=n.d3||{},n.d3,n.d3,n.d3,null)},{\\\"d3-array\\\":145,\\\"d3-collection\\\":146,\\\"d3-shape\\\":155,\\\"elementary-circuits-directed-graph\\\":167}],155:[function(t,e,r){var n,i;n=this,i=function(t,e){\\\"use strict\\\";function r(t){return function(){return t}}var n=Math.abs,i=Math.atan2,a=Math.cos,o=Math.max,s=Math.min,l=Math.sin,c=Math.sqrt,u=1e-12,f=Math.PI,h=f/2,p=2*f;function d(t){return t>=1?h:t<=-1?-h:Math.asin(t)}function g(t){return t.innerRadius}function v(t){return t.outerRadius}function m(t){return t.startAngle}function y(t){return t.endAngle}function x(t){return t&&t.padAngle}function b(t,e,r,n,i,a,s){var l=t-r,u=e-n,f=(s?a:-a)/c(l*l+u*u),h=f*u,p=-f*l,d=t+h,g=e+p,v=r+h,m=n+p,y=(d+v)/2,x=(g+m)/2,b=v-d,_=m-g,w=b*b+_*_,k=i-a,T=d*m-v*g,A=(_<0?-1:1)*c(o(0,k*k*w-T*T)),M=(T*_-b*A)/w,S=(-T*b-_*A)/w,E=(T*_+b*A)/w,C=(-T*b+_*A)/w,L=M-y,z=S-x,O=E-y,I=C-x;return L*L+z*z>O*O+I*I&&(M=E,S=C),{cx:M,cy:S,x01:-h,y01:-p,x11:M*(i/k-1),y11:S*(i/k-1)}}function _(t){this._context=t}function w(t){return new _(t)}function k(t){return t[0]}function T(t){return t[1]}function A(){var t=k,n=T,i=r(!0),a=null,o=w,s=null;function l(r){var l,c,u,f=r.length,h=!1;for(null==a&&(s=o(u=e.path())),l=0;l<=f;++l)!(l<f&&i(c=r[l],l,r))===h&&((h=!h)?s.lineStart():s.lineEnd()),h&&s.point(+t(c,l,r),+n(c,l,r));if(u)return s=null,u+\\\"\\\"||null}return l.x=function(e){return arguments.length?(t=\\\"function\\\"==typeof e?e:r(+e),l):t},l.y=function(t){return arguments.length?(n=\\\"function\\\"==typeof t?t:r(+t),l):n},l.defined=function(t){return arguments.length?(i=\\\"function\\\"==typeof t?t:r(!!t),l):i},l.curve=function(t){return arguments.length?(o=t,null!=a&&(s=o(a)),l):o},l.context=function(t){return arguments.length?(null==t?a=s=null:s=o(a=t),l):a},l}function M(){var t=k,n=null,i=r(0),a=T,o=r(!0),s=null,l=w,c=null;function u(r){var u,f,h,p,d,g=r.length,v=!1,m=new Array(g),y=new Array(g);for(null==s&&(c=l(d=e.path())),u=0;u<=g;++u){if(!(u<g&&o(p=r[u],u,r))===v)if(v=!v)f=u,c.areaStart(),c.lineStart();else{for(c.lineEnd(),c.lineStart(),h=u-1;h>=f;--h)c.point(m[h],y[h]);c.lineEnd(),c.areaEnd()}v&&(m[u]=+t(p,u,r),y[u]=+i(p,u,r),c.point(n?+n(p,u,r):m[u],a?+a(p,u,r):y[u]))}if(d)return c=null,d+\\\"\\\"||null}function f(){return A().defined(o).curve(l).context(s)}return u.x=function(e){return arguments.length?(t=\\\"function\\\"==typeof e?e:r(+e),n=null,u):t},u.x0=function(e){return arguments.length?(t=\\\"function\\\"==typeof e?e:r(+e),u):t},u.x1=function(t){return arguments.length?(n=null==t?null:\\\"function\\\"==typeof t?t:r(+t),u):n},u.y=function(t){return arguments.length?(i=\\\"function\\\"==typeof t?t:r(+t),a=null,u):i},u.y0=function(t){return arguments.length?(i=\\\"function\\\"==typeof t?t:r(+t),u):i},u.y1=function(t){return arguments.length?(a=null==t?null:\\\"function\\\"==typeof t?t:r(+t),u):a},u.lineX0=u.lineY0=function(){return f().x(t).y(i)},u.lineY1=function(){return f().x(t).y(a)},u.lineX1=function(){return f().x(n).y(i)},u.defined=function(t){return arguments.length?(o=\\\"function\\\"==typeof t?t:r(!!t),u):o},u.curve=function(t){return arguments.length?(l=t,null!=s&&(c=l(s)),u):l},u.context=function(t){return arguments.length?(null==t?s=c=null:c=l(s=t),u):s},u}function S(t,e){return e<t?-1:e>t?1:e>=t?0:NaN}function E(t){return t}_.prototype={areaStart:function(){this._line=0},areaEnd:function(){this._line=NaN},lineStart:function(){this._point=0},lineEnd:function(){(this._line||0!==this._line&&1===this._point)&&this._context.closePath(),this._line=1-this._line},point:function(t,e){switch(t=+t,e=+e,this._point){case 0:this._point=1,this._line?this._context.lineTo(t,e):this._context.moveTo(t,e);break;case 1:this._point=2;default:this._context.lineTo(t,e)}}};var C=z(w);function L(t){this._curve=t}function z(t){function e(e){return new L(t(e))}return e._curve=t,e}function O(t){var e=t.curve;return t.angle=t.x,delete t.x,t.radius=t.y,delete t.y,t.curve=function(t){return arguments.length?e(z(t)):e()._curve},t}function I(){return O(A().curve(C))}function D(){var t=M().curve(C),e=t.curve,r=t.lineX0,n=t.lineX1,i=t.lineY0,a=t.lineY1;return t.angle=t.x,delete t.x,t.startAngle=t.x0,delete t.x0,t.endAngle=t.x1,delete t.x1,t.radius=t.y,delete t.y,t.innerRadius=t.y0,delete t.y0,t.outerRadius=t.y1,delete t.y1,t.lineStartAngle=function(){return O(r())},delete t.lineX0,t.lineEndAngle=function(){return O(n())},delete t.lineX1,t.lineInnerRadius=function(){return O(i())},delete t.lineY0,t.lineOuterRadius=function(){return O(a())},delete t.lineY1,t.curve=function(t){return arguments.length?e(z(t)):e()._curve},t}function P(t,e){return[(e=+e)*Math.cos(t-=Math.PI/2),e*Math.sin(t)]}L.prototype={areaStart:function(){this._curve.areaStart()},areaEnd:function(){this._curve.areaEnd()},lineStart:function(){this._curve.lineStart()},lineEnd:function(){this._curve.lineEnd()},point:function(t,e){this._curve.point(e*Math.sin(t),e*-Math.cos(t))}};var R=Array.prototype.slice;function F(t){return t.source}function B(t){return t.target}function N(t){var n=F,i=B,a=k,o=T,s=null;function l(){var r,l=R.call(arguments),c=n.apply(this,l),u=i.apply(this,l);if(s||(s=r=e.path()),t(s,+a.apply(this,(l[0]=c,l)),+o.apply(this,l),+a.apply(this,(l[0]=u,l)),+o.apply(this,l)),r)return s=null,r+\\\"\\\"||null}return l.source=function(t){return arguments.length?(n=t,l):n},l.target=function(t){return arguments.length?(i=t,l):i},l.x=function(t){return arguments.length?(a=\\\"function\\\"==typeof t?t:r(+t),l):a},l.y=function(t){return arguments.length?(o=\\\"function\\\"==typeof t?t:r(+t),l):o},l.context=function(t){return arguments.length?(s=null==t?null:t,l):s},l}function j(t,e,r,n,i){t.moveTo(e,r),t.bezierCurveTo(e=(e+n)/2,r,e,i,n,i)}function V(t,e,r,n,i){t.moveTo(e,r),t.bezierCurveTo(e,r=(r+i)/2,n,r,n,i)}function U(t,e,r,n,i){var a=P(e,r),o=P(e,r=(r+i)/2),s=P(n,r),l=P(n,i);t.moveTo(a[0],a[1]),t.bezierCurveTo(o[0],o[1],s[0],s[1],l[0],l[1])}var H={draw:function(t,e){var r=Math.sqrt(e/f);t.moveTo(r,0),t.arc(0,0,r,0,p)}},q={draw:function(t,e){var r=Math.sqrt(e/5)/2;t.moveTo(-3*r,-r),t.lineTo(-r,-r),t.lineTo(-r,-3*r),t.lineTo(r,-3*r),t.lineTo(r,-r),t.lineTo(3*r,-r),t.lineTo(3*r,r),t.lineTo(r,r),t.lineTo(r,3*r),t.lineTo(-r,3*r),t.lineTo(-r,r),t.lineTo(-3*r,r),t.closePath()}},G=Math.sqrt(1/3),Y=2*G,W={draw:function(t,e){var r=Math.sqrt(e/Y),n=r*G;t.moveTo(0,-r),t.lineTo(n,0),t.lineTo(0,r),t.lineTo(-n,0),t.closePath()}},X=Math.sin(f/10)/Math.sin(7*f/10),Z=Math.sin(p/10)*X,$=-Math.cos(p/10)*X,J={draw:function(t,e){var r=Math.sqrt(.8908130915292852*e),n=Z*r,i=$*r;t.moveTo(0,-r),t.lineTo(n,i);for(var a=1;a<5;++a){var o=p*a/5,s=Math.cos(o),l=Math.sin(o);t.lineTo(l*r,-s*r),t.lineTo(s*n-l*i,l*n+s*i)}t.closePath()}},K={draw:function(t,e){var r=Math.sqrt(e),n=-r/2;t.rect(n,n,r,r)}},Q=Math.sqrt(3),tt={draw:function(t,e){var r=-Math.sqrt(e/(3*Q));t.moveTo(0,2*r),t.lineTo(-Q*r,-r),t.lineTo(Q*r,-r),t.closePath()}},et=-.5,rt=Math.sqrt(3)/2,nt=1/Math.sqrt(12),it=3*(nt/2+1),at={draw:function(t,e){var r=Math.sqrt(e/it),n=r/2,i=r*nt,a=n,o=r*nt+r,s=-a,l=o;t.moveTo(n,i),t.lineTo(a,o),t.lineTo(s,l),t.lineTo(et*n-rt*i,rt*n+et*i),t.lineTo(et*a-rt*o,rt*a+et*o),t.lineTo(et*s-rt*l,rt*s+et*l),t.lineTo(et*n+rt*i,et*i-rt*n),t.lineTo(et*a+rt*o,et*o-rt*a),t.lineTo(et*s+rt*l,et*l-rt*s),t.closePath()}},ot=[H,q,W,K,J,tt,at];function st(){}function lt(t,e,r){t._context.bezierCurveTo((2*t._x0+t._x1)/3,(2*t._y0+t._y1)/3,(t._x0+2*t._x1)/3,(t._y0+2*t._y1)/3,(t._x0+4*t._x1+e)/6,(t._y0+4*t._y1+r)/6)}function ct(t){this._context=t}function ut(t){this._context=t}function ft(t){this._context=t}function ht(t,e){this._basis=new ct(t),this._beta=e}ct.prototype={areaStart:function(){this._line=0},areaEnd:function(){this._line=NaN},lineStart:function(){this._x0=this._x1=this._y0=this._y1=NaN,this._point=0},lineEnd:function(){switch(this._point){case 3:lt(this,this._x1,this._y1);case 2:this._context.lineTo(this._x1,this._y1)}(this._line||0!==this._line&&1===this._point)&&this._context.closePath(),this._line=1-this._line},point:function(t,e){switch(t=+t,e=+e,this._point){case 0:this._point=1,this._line?this._context.lineTo(t,e):this._context.moveTo(t,e);break;case 1:this._point=2;break;case 2:this._point=3,this._context.lineTo((5*this._x0+this._x1)/6,(5*this._y0+this._y1)/6);default:lt(this,t,e)}this._x0=this._x1,this._x1=t,this._y0=this._y1,this._y1=e}},ut.prototype={areaStart:st,areaEnd:st,lineStart:function(){this._x0=this._x1=this._x2=this._x3=this._x4=this._y0=this._y1=this._y2=this._y3=this._y4=NaN,this._point=0},lineEnd:function(){switch(this._point){case 1:this._context.moveTo(this._x2,this._y2),this._context.closePath();break;case 2:this._context.moveTo((this._x2+2*this._x3)/3,(this._y2+2*this._y3)/3),this._context.lineTo((this._x3+2*this._x2)/3,(this._y3+2*this._y2)/3),this._context.closePath();break;case 3:this.point(this._x2,this._y2),this.point(this._x3,this._y3),this.point(this._x4,this._y4)}},point:function(t,e){switch(t=+t,e=+e,this._point){case 0:this._point=1,this._x2=t,this._y2=e;break;case 1:this._point=2,this._x3=t,this._y3=e;break;case 2:this._point=3,this._x4=t,this._y4=e,this._context.moveTo((this._x0+4*this._x1+t)/6,(this._y0+4*this._y1+e)/6);break;default:lt(this,t,e)}this._x0=this._x1,this._x1=t,this._y0=this._y1,this._y1=e}},ft.prototype={areaStart:function(){this._line=0},areaEnd:function(){this._line=NaN},lineStart:function(){this._x0=this._x1=this._y0=this._y1=NaN,this._point=0},lineEnd:function(){(this._line||0!==this._line&&3===this._point)&&this._context.closePath(),this._line=1-this._line},point:function(t,e){switch(t=+t,e=+e,this._point){case 0:this._point=1;break;case 1:this._point=2;break;case 2:this._point=3;var r=(this._x0+4*this._x1+t)/6,n=(this._y0+4*this._y1+e)/6;this._line?this._context.lineTo(r,n):this._context.moveTo(r,n);break;case 3:this._point=4;default:lt(this,t,e)}this._x0=this._x1,this._x1=t,this._y0=this._y1,this._y1=e}},ht.prototype={lineStart:function(){this._x=[],this._y=[],this._basis.lineStart()},lineEnd:function(){var t=this._x,e=this._y,r=t.length-1;if(r>0)for(var n,i=t[0],a=e[0],o=t[r]-i,s=e[r]-a,l=-1;++l<=r;)n=l/r,this._basis.point(this._beta*t[l]+(1-this._beta)*(i+n*o),this._beta*e[l]+(1-this._beta)*(a+n*s));this._x=this._y=null,this._basis.lineEnd()},point:function(t,e){this._x.push(+t),this._y.push(+e)}};var pt=function t(e){function r(t){return 1===e?new ct(t):new ht(t,e)}return r.beta=function(e){return t(+e)},r}(.85);function dt(t,e,r){t._context.bezierCurveTo(t._x1+t._k*(t._x2-t._x0),t._y1+t._k*(t._y2-t._y0),t._x2+t._k*(t._x1-e),t._y2+t._k*(t._y1-r),t._x2,t._y2)}function gt(t,e){this._context=t,this._k=(1-e)/6}gt.prototype={areaStart:function(){this._line=0},areaEnd:function(){this._line=NaN},lineStart:function(){this._x0=this._x1=this._x2=this._y0=this._y1=this._y2=NaN,this._point=0},lineEnd:function(){switch(this._point){case 2:this._context.lineTo(this._x2,this._y2);break;case 3:dt(this,this._x1,this._y1)}(this._line||0!==this._line&&1===this._point)&&this._context.closePath(),this._line=1-this._line},point:function(t,e){switch(t=+t,e=+e,this._point){case 0:this._point=1,this._line?this._context.lineTo(t,e):this._context.moveTo(t,e);break;case 1:this._point=2,this._x1=t,this._y1=e;break;case 2:this._point=3;default:dt(this,t,e)}this._x0=this._x1,this._x1=this._x2,this._x2=t,this._y0=this._y1,this._y1=this._y2,this._y2=e}};var vt=function t(e){function r(t){return new gt(t,e)}return r.tension=function(e){return t(+e)},r}(0);function mt(t,e){this._context=t,this._k=(1-e)/6}mt.prototype={areaStart:st,areaEnd:st,lineStart:function(){this._x0=this._x1=this._x2=this._x3=this._x4=this._x5=this._y0=this._y1=this._y2=this._y3=this._y4=this._y5=NaN,this._point=0},lineEnd:function(){switch(this._point){case 1:this._context.moveTo(this._x3,this._y3),this._context.closePath();break;case 2:this._context.lineTo(this._x3,this._y3),this._context.closePath();break;case 3:this.point(this._x3,this._y3),this.point(this._x4,this._y4),this.point(this._x5,this._y5)}},point:function(t,e){switch(t=+t,e=+e,this._point){case 0:this._point=1,this._x3=t,this._y3=e;break;case 1:this._point=2,this._context.moveTo(this._x4=t,this._y4=e);break;case 2:this._point=3,this._x5=t,this._y5=e;break;default:dt(this,t,e)}this._x0=this._x1,this._x1=this._x2,this._x2=t,this._y0=this._y1,this._y1=this._y2,this._y2=e}};var yt=function t(e){function r(t){return new mt(t,e)}return r.tension=function(e){return t(+e)},r}(0);function xt(t,e){this._context=t,this._k=(1-e)/6}xt.prototype={areaStart:function(){this._line=0},areaEnd:function(){this._line=NaN},lineStart:function(){this._x0=this._x1=this._x2=this._y0=this._y1=this._y2=NaN,this._point=0},lineEnd:function(){(this._line||0!==this._line&&3===this._point)&&this._context.closePath(),this._line=1-this._line},point:function(t,e){switch(t=+t,e=+e,this._point){case 0:this._point=1;break;case 1:this._point=2;break;case 2:this._point=3,this._line?this._context.lineTo(this._x2,this._y2):this._context.moveTo(this._x2,this._y2);break;case 3:this._point=4;default:dt(this,t,e)}this._x0=this._x1,this._x1=this._x2,this._x2=t,this._y0=this._y1,this._y1=this._y2,this._y2=e}};var bt=function t(e){function r(t){return new xt(t,e)}return r.tension=function(e){return t(+e)},r}(0);function _t(t,e,r){var n=t._x1,i=t._y1,a=t._x2,o=t._y2;if(t._l01_a>u){var s=2*t._l01_2a+3*t._l01_a*t._l12_a+t._l12_2a,l=3*t._l01_a*(t._l01_a+t._l12_a);n=(n*s-t._x0*t._l12_2a+t._x2*t._l01_2a)/l,i=(i*s-t._y0*t._l12_2a+t._y2*t._l01_2a)/l}if(t._l23_a>u){var c=2*t._l23_2a+3*t._l23_a*t._l12_a+t._l12_2a,f=3*t._l23_a*(t._l23_a+t._l12_a);a=(a*c+t._x1*t._l23_2a-e*t._l12_2a)/f,o=(o*c+t._y1*t._l23_2a-r*t._l12_2a)/f}t._context.bezierCurveTo(n,i,a,o,t._x2,t._y2)}function wt(t,e){this._context=t,this._alpha=e}wt.prototype={areaStart:function(){this._line=0},areaEnd:function(){this._line=NaN},lineStart:function(){this._x0=this._x1=this._x2=this._y0=this._y1=this._y2=NaN,this._l01_a=this._l12_a=this._l23_a=this._l01_2a=this._l12_2a=this._l23_2a=this._point=0},lineEnd:function(){switch(this._point){case 2:this._context.lineTo(this._x2,this._y2);break;case 3:this.point(this._x2,this._y2)}(this._line||0!==this._line&&1===this._point)&&this._context.closePath(),this._line=1-this._line},point:function(t,e){if(t=+t,e=+e,this._point){var r=this._x2-t,n=this._y2-e;this._l23_a=Math.sqrt(this._l23_2a=Math.pow(r*r+n*n,this._alpha))}switch(this._point){case 0:this._point=1,this._line?this._context.lineTo(t,e):this._context.moveTo(t,e);break;case 1:this._point=2;break;case 2:this._point=3;default:_t(this,t,e)}this._l01_a=this._l12_a,this._l12_a=this._l23_a,this._l01_2a=this._l12_2a,this._l12_2a=this._l23_2a,this._x0=this._x1,this._x1=this._x2,this._x2=t,this._y0=this._y1,this._y1=this._y2,this._y2=e}};var kt=function t(e){function r(t){return e?new wt(t,e):new gt(t,0)}return r.alpha=function(e){return t(+e)},r}(.5);function Tt(t,e){this._context=t,this._alpha=e}Tt.prototype={areaStart:st,areaEnd:st,lineStart:function(){this._x0=this._x1=this._x2=this._x3=this._x4=this._x5=this._y0=this._y1=this._y2=this._y3=this._y4=this._y5=NaN,this._l01_a=this._l12_a=this._l23_a=this._l01_2a=this._l12_2a=this._l23_2a=this._point=0},lineEnd:function(){switch(this._point){case 1:this._context.moveTo(this._x3,this._y3),this._context.closePath();break;case 2:this._context.lineTo(this._x3,this._y3),this._context.closePath();break;case 3:this.point(this._x3,this._y3),this.point(this._x4,this._y4),this.point(this._x5,this._y5)}},point:function(t,e){if(t=+t,e=+e,this._point){var r=this._x2-t,n=this._y2-e;this._l23_a=Math.sqrt(this._l23_2a=Math.pow(r*r+n*n,this._alpha))}switch(this._point){case 0:this._point=1,this._x3=t,this._y3=e;break;case 1:this._point=2,this._context.moveTo(this._x4=t,this._y4=e);break;case 2:this._point=3,this._x5=t,this._y5=e;break;default:_t(this,t,e)}this._l01_a=this._l12_a,this._l12_a=this._l23_a,this._l01_2a=this._l12_2a,this._l12_2a=this._l23_2a,this._x0=this._x1,this._x1=this._x2,this._x2=t,this._y0=this._y1,this._y1=this._y2,this._y2=e}};var At=function t(e){function r(t){return e?new Tt(t,e):new mt(t,0)}return r.alpha=function(e){return t(+e)},r}(.5);function Mt(t,e){this._context=t,this._alpha=e}Mt.prototype={areaStart:function(){this._line=0},areaEnd:function(){this._line=NaN},lineStart:function(){this._x0=this._x1=this._x2=this._y0=this._y1=this._y2=NaN,this._l01_a=this._l12_a=this._l23_a=this._l01_2a=this._l12_2a=this._l23_2a=this._point=0},lineEnd:function(){(this._line||0!==this._line&&3===this._point)&&this._context.closePath(),this._line=1-this._line},point:function(t,e){if(t=+t,e=+e,this._point){var r=this._x2-t,n=this._y2-e;this._l23_a=Math.sqrt(this._l23_2a=Math.pow(r*r+n*n,this._alpha))}switch(this._point){case 0:this._point=1;break;case 1:this._point=2;break;case 2:this._point=3,this._line?this._context.lineTo(this._x2,this._y2):this._context.moveTo(this._x2,this._y2);break;case 3:this._point=4;default:_t(this,t,e)}this._l01_a=this._l12_a,this._l12_a=this._l23_a,this._l01_2a=this._l12_2a,this._l12_2a=this._l23_2a,this._x0=this._x1,this._x1=this._x2,this._x2=t,this._y0=this._y1,this._y1=this._y2,this._y2=e}};var St=function t(e){function r(t){return e?new Mt(t,e):new xt(t,0)}return r.alpha=function(e){return t(+e)},r}(.5);function Et(t){this._context=t}function Ct(t){return t<0?-1:1}function Lt(t,e,r){var n=t._x1-t._x0,i=e-t._x1,a=(t._y1-t._y0)/(n||i<0&&-0),o=(r-t._y1)/(i||n<0&&-0),s=(a*i+o*n)/(n+i);return(Ct(a)+Ct(o))*Math.min(Math.abs(a),Math.abs(o),.5*Math.abs(s))||0}function zt(t,e){var r=t._x1-t._x0;return r?(3*(t._y1-t._y0)/r-e)/2:e}function Ot(t,e,r){var n=t._x0,i=t._y0,a=t._x1,o=t._y1,s=(a-n)/3;t._context.bezierCurveTo(n+s,i+s*e,a-s,o-s*r,a,o)}function It(t){this._context=t}function Dt(t){this._context=new Pt(t)}function Pt(t){this._context=t}function Rt(t){this._context=t}function Ft(t){var e,r,n=t.length-1,i=new Array(n),a=new Array(n),o=new Array(n);for(i[0]=0,a[0]=2,o[0]=t[0]+2*t[1],e=1;e<n-1;++e)i[e]=1,a[e]=4,o[e]=4*t[e]+2*t[e+1];for(i[n-1]=2,a[n-1]=7,o[n-1]=8*t[n-1]+t[n],e=1;e<n;++e)r=i[e]/a[e-1],a[e]-=r,o[e]-=r*o[e-1];for(i[n-1]=o[n-1]/a[n-1],e=n-2;e>=0;--e)i[e]=(o[e]-i[e+1])/a[e];for(a[n-1]=(t[n]+i[n-1])/2,e=0;e<n-1;++e)a[e]=2*t[e+1]-i[e+1];return[i,a]}function Bt(t,e){this._context=t,this._t=e}function Nt(t,e){if((i=t.length)>1)for(var r,n,i,a=1,o=t[e[0]],s=o.length;a<i;++a)for(n=o,o=t[e[a]],r=0;r<s;++r)o[r][1]+=o[r][0]=isNaN(n[r][1])?n[r][0]:n[r][1]}function jt(t){for(var e=t.length,r=new Array(e);--e>=0;)r[e]=e;return r}function Vt(t,e){return t[e]}function Ut(t){var e=t.map(Ht);return jt(t).sort(function(t,r){return e[t]-e[r]})}function Ht(t){for(var e,r=-1,n=0,i=t.length,a=-1/0;++r<i;)(e=+t[r][1])>a&&(a=e,n=r);return n}function qt(t){var e=t.map(Gt);return jt(t).sort(function(t,r){return e[t]-e[r]})}function Gt(t){for(var e,r=0,n=-1,i=t.length;++n<i;)(e=+t[n][1])&&(r+=e);return r}Et.prototype={areaStart:st,areaEnd:st,lineStart:function(){this._point=0},lineEnd:function(){this._point&&this._context.closePath()},point:function(t,e){t=+t,e=+e,this._point?this._context.lineTo(t,e):(this._point=1,this._context.moveTo(t,e))}},It.prototype={areaStart:function(){this._line=0},areaEnd:function(){this._line=NaN},lineStart:function(){this._x0=this._x1=this._y0=this._y1=this._t0=NaN,this._point=0},lineEnd:function(){switch(this._point){case 2:this._context.lineTo(this._x1,this._y1);break;case 3:Ot(this,this._t0,zt(this,this._t0))}(this._line||0!==this._line&&1===this._point)&&this._context.closePath(),this._line=1-this._line},point:function(t,e){var r=NaN;if(e=+e,(t=+t)!==this._x1||e!==this._y1){switch(this._point){case 0:this._point=1,this._line?this._context.lineTo(t,e):this._context.moveTo(t,e);break;case 1:this._point=2;break;case 2:this._point=3,Ot(this,zt(this,r=Lt(this,t,e)),r);break;default:Ot(this,this._t0,r=Lt(this,t,e))}this._x0=this._x1,this._x1=t,this._y0=this._y1,this._y1=e,this._t0=r}}},(Dt.prototype=Object.create(It.prototype)).point=function(t,e){It.prototype.point.call(this,e,t)},Pt.prototype={moveTo:function(t,e){this._context.moveTo(e,t)},closePath:function(){this._context.closePath()},lineTo:function(t,e){this._context.lineTo(e,t)},bezierCurveTo:function(t,e,r,n,i,a){this._context.bezierCurveTo(e,t,n,r,a,i)}},Rt.prototype={areaStart:function(){this._line=0},areaEnd:function(){this._line=NaN},lineStart:function(){this._x=[],this._y=[]},lineEnd:function(){var t=this._x,e=this._y,r=t.length;if(r)if(this._line?this._context.lineTo(t[0],e[0]):this._context.moveTo(t[0],e[0]),2===r)this._context.lineTo(t[1],e[1]);else for(var n=Ft(t),i=Ft(e),a=0,o=1;o<r;++a,++o)this._context.bezierCurveTo(n[0][a],i[0][a],n[1][a],i[1][a],t[o],e[o]);(this._line||0!==this._line&&1===r)&&this._context.closePath(),this._line=1-this._line,this._x=this._y=null},point:function(t,e){this._x.push(+t),this._y.push(+e)}},Bt.prototype={areaStart:function(){this._line=0},areaEnd:function(){this._line=NaN},lineStart:function(){this._x=this._y=NaN,this._point=0},lineEnd:function(){0<this._t&&this._t<1&&2===this._point&&this._context.lineTo(this._x,this._y),(this._line||0!==this._line&&1===this._point)&&this._context.closePath(),this._line>=0&&(this._t=1-this._t,this._line=1-this._line)},point:function(t,e){switch(t=+t,e=+e,this._point){case 0:this._point=1,this._line?this._context.lineTo(t,e):this._context.moveTo(t,e);break;case 1:this._point=2;default:if(this._t<=0)this._context.lineTo(this._x,e),this._context.lineTo(t,e);else{var r=this._x*(1-this._t)+t*this._t;this._context.lineTo(r,this._y),this._context.lineTo(r,e)}}this._x=t,this._y=e}},t.arc=function(){var t=g,o=v,_=r(0),w=null,k=m,T=y,A=x,M=null;function S(){var r,g,v,m=+t.apply(this,arguments),y=+o.apply(this,arguments),x=k.apply(this,arguments)-h,S=T.apply(this,arguments)-h,E=n(S-x),C=S>x;if(M||(M=r=e.path()),y<m&&(g=y,y=m,m=g),y>u)if(E>p-u)M.moveTo(y*a(x),y*l(x)),M.arc(0,0,y,x,S,!C),m>u&&(M.moveTo(m*a(S),m*l(S)),M.arc(0,0,m,S,x,C));else{var L,z,O=x,I=S,D=x,P=S,R=E,F=E,B=A.apply(this,arguments)/2,N=B>u&&(w?+w.apply(this,arguments):c(m*m+y*y)),j=s(n(y-m)/2,+_.apply(this,arguments)),V=j,U=j;if(N>u){var H=d(N/m*l(B)),q=d(N/y*l(B));(R-=2*H)>u?(D+=H*=C?1:-1,P-=H):(R=0,D=P=(x+S)/2),(F-=2*q)>u?(O+=q*=C?1:-1,I-=q):(F=0,O=I=(x+S)/2)}var G=y*a(O),Y=y*l(O),W=m*a(P),X=m*l(P);if(j>u){var Z,$=y*a(I),J=y*l(I),K=m*a(D),Q=m*l(D);if(E<f&&(Z=function(t,e,r,n,i,a,o,s){var l=r-t,c=n-e,f=o-i,h=s-a,p=h*l-f*c;if(!(p*p<u))return[t+(p=(f*(e-a)-h*(t-i))/p)*l,e+p*c]}(G,Y,K,Q,$,J,W,X))){var tt=G-Z[0],et=Y-Z[1],rt=$-Z[0],nt=J-Z[1],it=1/l(((v=(tt*rt+et*nt)/(c(tt*tt+et*et)*c(rt*rt+nt*nt)))>1?0:v<-1?f:Math.acos(v))/2),at=c(Z[0]*Z[0]+Z[1]*Z[1]);V=s(j,(m-at)/(it-1)),U=s(j,(y-at)/(it+1))}}F>u?U>u?(L=b(K,Q,G,Y,y,U,C),z=b($,J,W,X,y,U,C),M.moveTo(L.cx+L.x01,L.cy+L.y01),U<j?M.arc(L.cx,L.cy,U,i(L.y01,L.x01),i(z.y01,z.x01),!C):(M.arc(L.cx,L.cy,U,i(L.y01,L.x01),i(L.y11,L.x11),!C),M.arc(0,0,y,i(L.cy+L.y11,L.cx+L.x11),i(z.cy+z.y11,z.cx+z.x11),!C),M.arc(z.cx,z.cy,U,i(z.y11,z.x11),i(z.y01,z.x01),!C))):(M.moveTo(G,Y),M.arc(0,0,y,O,I,!C)):M.moveTo(G,Y),m>u&&R>u?V>u?(L=b(W,X,$,J,m,-V,C),z=b(G,Y,K,Q,m,-V,C),M.lineTo(L.cx+L.x01,L.cy+L.y01),V<j?M.arc(L.cx,L.cy,V,i(L.y01,L.x01),i(z.y01,z.x01),!C):(M.arc(L.cx,L.cy,V,i(L.y01,L.x01),i(L.y11,L.x11),!C),M.arc(0,0,m,i(L.cy+L.y11,L.cx+L.x11),i(z.cy+z.y11,z.cx+z.x11),C),M.arc(z.cx,z.cy,V,i(z.y11,z.x11),i(z.y01,z.x01),!C))):M.arc(0,0,m,P,D,C):M.lineTo(W,X)}else M.moveTo(0,0);if(M.closePath(),r)return M=null,r+\\\"\\\"||null}return S.centroid=function(){var e=(+t.apply(this,arguments)+ +o.apply(this,arguments))/2,r=(+k.apply(this,arguments)+ +T.apply(this,arguments))/2-f/2;return[a(r)*e,l(r)*e]},S.innerRadius=function(e){return arguments.length?(t=\\\"function\\\"==typeof e?e:r(+e),S):t},S.outerRadius=function(t){return arguments.length?(o=\\\"function\\\"==typeof t?t:r(+t),S):o},S.cornerRadius=function(t){return arguments.length?(_=\\\"function\\\"==typeof t?t:r(+t),S):_},S.padRadius=function(t){return arguments.length?(w=null==t?null:\\\"function\\\"==typeof t?t:r(+t),S):w},S.startAngle=function(t){return arguments.length?(k=\\\"function\\\"==typeof t?t:r(+t),S):k},S.endAngle=function(t){return arguments.length?(T=\\\"function\\\"==typeof t?t:r(+t),S):T},S.padAngle=function(t){return arguments.length?(A=\\\"function\\\"==typeof t?t:r(+t),S):A},S.context=function(t){return arguments.length?(M=null==t?null:t,S):M},S},t.area=M,t.line=A,t.pie=function(){var t=E,e=S,n=null,i=r(0),a=r(p),o=r(0);function s(r){var s,l,c,u,f,h=r.length,d=0,g=new Array(h),v=new Array(h),m=+i.apply(this,arguments),y=Math.min(p,Math.max(-p,a.apply(this,arguments)-m)),x=Math.min(Math.abs(y)/h,o.apply(this,arguments)),b=x*(y<0?-1:1);for(s=0;s<h;++s)(f=v[g[s]=s]=+t(r[s],s,r))>0&&(d+=f);for(null!=e?g.sort(function(t,r){return e(v[t],v[r])}):null!=n&&g.sort(function(t,e){return n(r[t],r[e])}),s=0,c=d?(y-h*b)/d:0;s<h;++s,m=u)l=g[s],u=m+((f=v[l])>0?f*c:0)+b,v[l]={data:r[l],index:s,value:f,startAngle:m,endAngle:u,padAngle:x};return v}return s.value=function(e){return arguments.length?(t=\\\"function\\\"==typeof e?e:r(+e),s):t},s.sortValues=function(t){return arguments.length?(e=t,n=null,s):e},s.sort=function(t){return arguments.length?(n=t,e=null,s):n},s.startAngle=function(t){return arguments.length?(i=\\\"function\\\"==typeof t?t:r(+t),s):i},s.endAngle=function(t){return arguments.length?(a=\\\"function\\\"==typeof t?t:r(+t),s):a},s.padAngle=function(t){return arguments.length?(o=\\\"function\\\"==typeof t?t:r(+t),s):o},s},t.areaRadial=D,t.radialArea=D,t.lineRadial=I,t.radialLine=I,t.pointRadial=P,t.linkHorizontal=function(){return N(j)},t.linkVertical=function(){return N(V)},t.linkRadial=function(){var t=N(U);return t.angle=t.x,delete t.x,t.radius=t.y,delete t.y,t},t.symbol=function(){var t=r(H),n=r(64),i=null;function a(){var r;if(i||(i=r=e.path()),t.apply(this,arguments).draw(i,+n.apply(this,arguments)),r)return i=null,r+\\\"\\\"||null}return a.type=function(e){return arguments.length?(t=\\\"function\\\"==typeof e?e:r(e),a):t},a.size=function(t){return arguments.length?(n=\\\"function\\\"==typeof t?t:r(+t),a):n},a.context=function(t){return arguments.length?(i=null==t?null:t,a):i},a},t.symbols=ot,t.symbolCircle=H,t.symbolCross=q,t.symbolDiamond=W,t.symbolSquare=K,t.symbolStar=J,t.symbolTriangle=tt,t.symbolWye=at,t.curveBasisClosed=function(t){return new ut(t)},t.curveBasisOpen=function(t){return new ft(t)},t.curveBasis=function(t){return new ct(t)},t.curveBundle=pt,t.curveCardinalClosed=yt,t.curveCardinalOpen=bt,t.curveCardinal=vt,t.curveCatmullRomClosed=At,t.curveCatmullRomOpen=St,t.curveCatmullRom=kt,t.curveLinearClosed=function(t){return new Et(t)},t.curveLinear=w,t.curveMonotoneX=function(t){return new It(t)},t.curveMonotoneY=function(t){return new Dt(t)},t.curveNatural=function(t){return new Rt(t)},t.curveStep=function(t){return new Bt(t,.5)},t.curveStepAfter=function(t){return new Bt(t,1)},t.curveStepBefore=function(t){return new Bt(t,0)},t.stack=function(){var t=r([]),e=jt,n=Nt,i=Vt;function a(r){var a,o,s=t.apply(this,arguments),l=r.length,c=s.length,u=new Array(c);for(a=0;a<c;++a){for(var f,h=s[a],p=u[a]=new Array(l),d=0;d<l;++d)p[d]=f=[0,+i(r[d],h,d,r)],f.data=r[d];p.key=h}for(a=0,o=e(u);a<c;++a)u[o[a]].index=a;return n(u,o),u}return a.keys=function(e){return arguments.length?(t=\\\"function\\\"==typeof e?e:r(R.call(e)),a):t},a.value=function(t){return arguments.length?(i=\\\"function\\\"==typeof t?t:r(+t),a):i},a.order=function(t){return arguments.length?(e=null==t?jt:\\\"function\\\"==typeof t?t:r(R.call(t)),a):e},a.offset=function(t){return arguments.length?(n=null==t?Nt:t,a):n},a},t.stackOffsetExpand=function(t,e){if((n=t.length)>0){for(var r,n,i,a=0,o=t[0].length;a<o;++a){for(i=r=0;r<n;++r)i+=t[r][a][1]||0;if(i)for(r=0;r<n;++r)t[r][a][1]/=i}Nt(t,e)}},t.stackOffsetDiverging=function(t,e){if((s=t.length)>1)for(var r,n,i,a,o,s,l=0,c=t[e[0]].length;l<c;++l)for(a=o=0,r=0;r<s;++r)(i=(n=t[e[r]][l])[1]-n[0])>=0?(n[0]=a,n[1]=a+=i):i<0?(n[1]=o,n[0]=o+=i):n[0]=a},t.stackOffsetNone=Nt,t.stackOffsetSilhouette=function(t,e){if((r=t.length)>0){for(var r,n=0,i=t[e[0]],a=i.length;n<a;++n){for(var o=0,s=0;o<r;++o)s+=t[o][n][1]||0;i[n][1]+=i[n][0]=-s/2}Nt(t,e)}},t.stackOffsetWiggle=function(t,e){if((i=t.length)>0&&(n=(r=t[e[0]]).length)>0){for(var r,n,i,a=0,o=1;o<n;++o){for(var s=0,l=0,c=0;s<i;++s){for(var u=t[e[s]],f=u[o][1]||0,h=(f-(u[o-1][1]||0))/2,p=0;p<s;++p){var d=t[e[p]];h+=(d[o][1]||0)-(d[o-1][1]||0)}l+=f,c+=h*f}r[o-1][1]+=r[o-1][0]=a,l&&(a-=c/l)}r[o-1][1]+=r[o-1][0]=a,Nt(t,e)}},t.stackOrderAppearance=Ut,t.stackOrderAscending=qt,t.stackOrderDescending=function(t){return qt(t).reverse()},t.stackOrderInsideOut=function(t){var e,r,n=t.length,i=t.map(Gt),a=Ut(t),o=0,s=0,l=[],c=[];for(e=0;e<n;++e)r=a[e],o<s?(o+=i[r],l.push(r)):(s+=i[r],c.push(r));return c.reverse().concat(l)},t.stackOrderNone=jt,t.stackOrderReverse=function(t){return jt(t).reverse()},Object.defineProperty(t,\\\"__esModule\\\",{value:!0})},\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?i(r,t(\\\"d3-path\\\")):i(n.d3=n.d3||{},n.d3)},{\\\"d3-path\\\":152}],156:[function(t,e,r){var n;n=this,function(t){\\\"use strict\\\";var e,r,n=0,i=0,a=0,o=1e3,s=0,l=0,c=0,u=\\\"object\\\"==typeof performance&&performance.now?performance:Date,f=\\\"object\\\"==typeof window&&window.requestAnimationFrame?window.requestAnimationFrame.bind(window):function(t){setTimeout(t,17)};function h(){return l||(f(p),l=u.now()+c)}function p(){l=0}function d(){this._call=this._time=this._next=null}function g(t,e,r){var n=new d;return n.restart(t,e,r),n}function v(){h(),++n;for(var t,r=e;r;)(t=l-r._time)>=0&&r._call.call(null,t),r=r._next;--n}function m(){l=(s=u.now())+c,n=i=0;try{v()}finally{n=0,function(){var t,n,i=e,a=1/0;for(;i;)i._call?(a>i._time&&(a=i._time),t=i,i=i._next):(n=i._next,i._next=null,i=t?t._next=n:e=n);r=t,x(a)}(),l=0}}function y(){var t=u.now(),e=t-s;e>o&&(c-=e,s=t)}function x(t){n||(i&&(i=clearTimeout(i)),t-l>24?(t<1/0&&(i=setTimeout(m,t-u.now()-c)),a&&(a=clearInterval(a))):(a||(s=u.now(),a=setInterval(y,o)),n=1,f(m)))}d.prototype=g.prototype={constructor:d,restart:function(t,n,i){if(\\\"function\\\"!=typeof t)throw new TypeError(\\\"callback is not a function\\\");i=(null==i?h():+i)+(null==n?0:+n),this._next||r===this||(r?r._next=this:e=this,r=this),this._call=t,this._time=i,x()},stop:function(){this._call&&(this._call=null,this._time=1/0,x())}};t.now=h,t.timer=g,t.timerFlush=v,t.timeout=function(t,e,r){var n=new d;return e=null==e?0:+e,n.restart(function(r){n.stop(),t(r+e)},e,r),n},t.interval=function(t,e,r){var n=new d,i=e;return null==e?(n.restart(t,e,r),n):(e=+e,r=null==r?h():+r,n.restart(function a(o){o+=i,n.restart(a,i+=e,r),t(o)},e,r),n)},Object.defineProperty(t,\\\"__esModule\\\",{value:!0})}(\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?r:n.d3=n.d3||{})},{}],157:[function(t,e,r){!function(){var t={version:\\\"3.5.17\\\"},r=[].slice,n=function(t){return r.call(t)},i=this.document;function a(t){return t&&(t.ownerDocument||t.document||t).documentElement}function o(t){return t&&(t.ownerDocument&&t.ownerDocument.defaultView||t.document&&t||t.defaultView)}if(i)try{n(i.documentElement.childNodes)[0].nodeType}catch(t){n=function(t){for(var e=t.length,r=new Array(e);e--;)r[e]=t[e];return r}}if(Date.now||(Date.now=function(){return+new Date}),i)try{i.createElement(\\\"DIV\\\").style.setProperty(\\\"opacity\\\",0,\\\"\\\")}catch(t){var s=this.Element.prototype,l=s.setAttribute,c=s.setAttributeNS,u=this.CSSStyleDeclaration.prototype,f=u.setProperty;s.setAttribute=function(t,e){l.call(this,t,e+\\\"\\\")},s.setAttributeNS=function(t,e,r){c.call(this,t,e,r+\\\"\\\")},u.setProperty=function(t,e,r){f.call(this,t,e+\\\"\\\",r)}}function h(t,e){return t<e?-1:t>e?1:t>=e?0:NaN}function p(t){return null===t?NaN:+t}function d(t){return!isNaN(t)}function g(t){return{left:function(e,r,n,i){for(arguments.length<3&&(n=0),arguments.length<4&&(i=e.length);n<i;){var a=n+i>>>1;t(e[a],r)<0?n=a+1:i=a}return n},right:function(e,r,n,i){for(arguments.length<3&&(n=0),arguments.length<4&&(i=e.length);n<i;){var a=n+i>>>1;t(e[a],r)>0?i=a:n=a+1}return n}}}t.ascending=h,t.descending=function(t,e){return e<t?-1:e>t?1:e>=t?0:NaN},t.min=function(t,e){var r,n,i=-1,a=t.length;if(1===arguments.length){for(;++i<a;)if(null!=(n=t[i])&&n>=n){r=n;break}for(;++i<a;)null!=(n=t[i])&&r>n&&(r=n)}else{for(;++i<a;)if(null!=(n=e.call(t,t[i],i))&&n>=n){r=n;break}for(;++i<a;)null!=(n=e.call(t,t[i],i))&&r>n&&(r=n)}return r},t.max=function(t,e){var r,n,i=-1,a=t.length;if(1===arguments.length){for(;++i<a;)if(null!=(n=t[i])&&n>=n){r=n;break}for(;++i<a;)null!=(n=t[i])&&n>r&&(r=n)}else{for(;++i<a;)if(null!=(n=e.call(t,t[i],i))&&n>=n){r=n;break}for(;++i<a;)null!=(n=e.call(t,t[i],i))&&n>r&&(r=n)}return r},t.extent=function(t,e){var r,n,i,a=-1,o=t.length;if(1===arguments.length){for(;++a<o;)if(null!=(n=t[a])&&n>=n){r=i=n;break}for(;++a<o;)null!=(n=t[a])&&(r>n&&(r=n),i<n&&(i=n))}else{for(;++a<o;)if(null!=(n=e.call(t,t[a],a))&&n>=n){r=i=n;break}for(;++a<o;)null!=(n=e.call(t,t[a],a))&&(r>n&&(r=n),i<n&&(i=n))}return[r,i]},t.sum=function(t,e){var r,n=0,i=t.length,a=-1;if(1===arguments.length)for(;++a<i;)d(r=+t[a])&&(n+=r);else for(;++a<i;)d(r=+e.call(t,t[a],a))&&(n+=r);return n},t.mean=function(t,e){var r,n=0,i=t.length,a=-1,o=i;if(1===arguments.length)for(;++a<i;)d(r=p(t[a]))?n+=r:--o;else for(;++a<i;)d(r=p(e.call(t,t[a],a)))?n+=r:--o;if(o)return n/o},t.quantile=function(t,e){var r=(t.length-1)*e+1,n=Math.floor(r),i=+t[n-1],a=r-n;return a?i+a*(t[n]-i):i},t.median=function(e,r){var n,i=[],a=e.length,o=-1;if(1===arguments.length)for(;++o<a;)d(n=p(e[o]))&&i.push(n);else for(;++o<a;)d(n=p(r.call(e,e[o],o)))&&i.push(n);if(i.length)return t.quantile(i.sort(h),.5)},t.variance=function(t,e){var r,n,i=t.length,a=0,o=0,s=-1,l=0;if(1===arguments.length)for(;++s<i;)d(r=p(t[s]))&&(o+=(n=r-a)*(r-(a+=n/++l)));else for(;++s<i;)d(r=p(e.call(t,t[s],s)))&&(o+=(n=r-a)*(r-(a+=n/++l)));if(l>1)return o/(l-1)},t.deviation=function(){var e=t.variance.apply(this,arguments);return e?Math.sqrt(e):e};var v=g(h);function m(t){return t.length}t.bisectLeft=v.left,t.bisect=t.bisectRight=v.right,t.bisector=function(t){return g(1===t.length?function(e,r){return h(t(e),r)}:t)},t.shuffle=function(t,e,r){(a=arguments.length)<3&&(r=t.length,a<2&&(e=0));for(var n,i,a=r-e;a;)i=Math.random()*a--|0,n=t[a+e],t[a+e]=t[i+e],t[i+e]=n;return t},t.permute=function(t,e){for(var r=e.length,n=new Array(r);r--;)n[r]=t[e[r]];return n},t.pairs=function(t){for(var e=0,r=t.length-1,n=t[0],i=new Array(r<0?0:r);e<r;)i[e]=[n,n=t[++e]];return i},t.transpose=function(e){if(!(a=e.length))return[];for(var r=-1,n=t.min(e,m),i=new Array(n);++r<n;)for(var a,o=-1,s=i[r]=new Array(a);++o<a;)s[o]=e[o][r];return i},t.zip=function(){return t.transpose(arguments)},t.keys=function(t){var e=[];for(var r in t)e.push(r);return e},t.values=function(t){var e=[];for(var r in t)e.push(t[r]);return e},t.entries=function(t){var e=[];for(var r in t)e.push({key:r,value:t[r]});return e},t.merge=function(t){for(var e,r,n,i=t.length,a=-1,o=0;++a<i;)o+=t[a].length;for(r=new Array(o);--i>=0;)for(e=(n=t[i]).length;--e>=0;)r[--o]=n[e];return r};var y=Math.abs;function x(t,e){for(var r in e)Object.defineProperty(t.prototype,r,{value:e[r],enumerable:!1})}function b(){this._=Object.create(null)}t.range=function(t,e,r){if(arguments.length<3&&(r=1,arguments.length<2&&(e=t,t=0)),(e-t)/r==1/0)throw new Error(\\\"infinite range\\\");var n,i=[],a=function(t){var e=1;for(;t*e%1;)e*=10;return e}(y(r)),o=-1;if(t*=a,e*=a,(r*=a)<0)for(;(n=t+r*++o)>e;)i.push(n/a);else for(;(n=t+r*++o)<e;)i.push(n/a);return i},t.map=function(t,e){var r=new b;if(t instanceof b)t.forEach(function(t,e){r.set(t,e)});else if(Array.isArray(t)){var n,i=-1,a=t.length;if(1===arguments.length)for(;++i<a;)r.set(i,t[i]);else for(;++i<a;)r.set(e.call(t,n=t[i],i),n)}else for(var o in t)r.set(o,t[o]);return r};var _=\\\"__proto__\\\",w=\\\"\\\\0\\\";function k(t){return(t+=\\\"\\\")===_||t[0]===w?w+t:t}function T(t){return(t+=\\\"\\\")[0]===w?t.slice(1):t}function A(t){return k(t)in this._}function M(t){return(t=k(t))in this._&&delete this._[t]}function S(){var t=[];for(var e in this._)t.push(T(e));return t}function E(){var t=0;for(var e in this._)++t;return t}function C(){for(var t in this._)return!1;return!0}function L(){this._=Object.create(null)}function z(t){return t}function O(t,e,r){return function(){var n=r.apply(e,arguments);return n===e?t:n}}function I(t,e){if(e in t)return e;e=e.charAt(0).toUpperCase()+e.slice(1);for(var r=0,n=D.length;r<n;++r){var i=D[r]+e;if(i in t)return i}}x(b,{has:A,get:function(t){return this._[k(t)]},set:function(t,e){return this._[k(t)]=e},remove:M,keys:S,values:function(){var t=[];for(var e in this._)t.push(this._[e]);return t},entries:function(){var t=[];for(var e in this._)t.push({key:T(e),value:this._[e]});return t},size:E,empty:C,forEach:function(t){for(var e in this._)t.call(this,T(e),this._[e])}}),t.nest=function(){var e,r,n={},i=[],a=[];function o(t,a,s){if(s>=i.length)return r?r.call(n,a):e?a.sort(e):a;for(var l,c,u,f,h=-1,p=a.length,d=i[s++],g=new b;++h<p;)(f=g.get(l=d(c=a[h])))?f.push(c):g.set(l,[c]);return t?(c=t(),u=function(e,r){c.set(e,o(t,r,s))}):(c={},u=function(e,r){c[e]=o(t,r,s)}),g.forEach(u),c}return n.map=function(t,e){return o(e,t,0)},n.entries=function(e){return function t(e,r){if(r>=i.length)return e;var n=[],o=a[r++];return e.forEach(function(e,i){n.push({key:e,values:t(i,r)})}),o?n.sort(function(t,e){return o(t.key,e.key)}):n}(o(t.map,e,0),0)},n.key=function(t){return i.push(t),n},n.sortKeys=function(t){return a[i.length-1]=t,n},n.sortValues=function(t){return e=t,n},n.rollup=function(t){return r=t,n},n},t.set=function(t){var e=new L;if(t)for(var r=0,n=t.length;r<n;++r)e.add(t[r]);return e},x(L,{has:A,add:function(t){return this._[k(t+=\\\"\\\")]=!0,t},remove:M,values:S,size:E,empty:C,forEach:function(t){for(var e in this._)t.call(this,T(e))}}),t.behavior={},t.rebind=function(t,e){for(var r,n=1,i=arguments.length;++n<i;)t[r=arguments[n]]=O(t,e,e[r]);return t};var D=[\\\"webkit\\\",\\\"ms\\\",\\\"moz\\\",\\\"Moz\\\",\\\"o\\\",\\\"O\\\"];function P(){}function R(){}function F(t){var e=[],r=new b;function n(){for(var r,n=e,i=-1,a=n.length;++i<a;)(r=n[i].on)&&r.apply(this,arguments);return t}return n.on=function(n,i){var a,o=r.get(n);return arguments.length<2?o&&o.on:(o&&(o.on=null,e=e.slice(0,a=e.indexOf(o)).concat(e.slice(a+1)),r.remove(n)),i&&e.push(r.set(n,{on:i})),t)},n}function B(){t.event.preventDefault()}function N(){for(var e,r=t.event;e=r.sourceEvent;)r=e;return r}function j(e){for(var r=new R,n=0,i=arguments.length;++n<i;)r[arguments[n]]=F(r);return r.of=function(n,i){return function(a){try{var o=a.sourceEvent=t.event;a.target=e,t.event=a,r[a.type].apply(n,i)}finally{t.event=o}}},r}t.dispatch=function(){for(var t=new R,e=-1,r=arguments.length;++e<r;)t[arguments[e]]=F(t);return t},R.prototype.on=function(t,e){var r=t.indexOf(\\\".\\\"),n=\\\"\\\";if(r>=0&&(n=t.slice(r+1),t=t.slice(0,r)),t)return arguments.length<2?this[t].on(n):this[t].on(n,e);if(2===arguments.length){if(null==e)for(t in this)this.hasOwnProperty(t)&&this[t].on(n,null);return this}},t.event=null,t.requote=function(t){return t.replace(V,\\\"\\\\\\\\$&\\\")};var V=/[\\\\\\\\\\\\^\\\\$\\\\*\\\\+\\\\?\\\\|\\\\[\\\\]\\\\(\\\\)\\\\.\\\\{\\\\}]/g,U={}.__proto__?function(t,e){t.__proto__=e}:function(t,e){for(var r in e)t[r]=e[r]};function H(t){return U(t,W),t}var q=function(t,e){return e.querySelector(t)},G=function(t,e){return e.querySelectorAll(t)},Y=function(t,e){var r=t.matches||t[I(t,\\\"matchesSelector\\\")];return(Y=function(t,e){return r.call(t,e)})(t,e)};\\\"function\\\"==typeof Sizzle&&(q=function(t,e){return Sizzle(t,e)[0]||null},G=Sizzle,Y=Sizzle.matchesSelector),t.selection=function(){return t.select(i.documentElement)};var W=t.selection.prototype=[];function X(t){return\\\"function\\\"==typeof t?t:function(){return q(t,this)}}function Z(t){return\\\"function\\\"==typeof t?t:function(){return G(t,this)}}W.select=function(t){var e,r,n,i,a=[];t=X(t);for(var o=-1,s=this.length;++o<s;){a.push(e=[]),e.parentNode=(n=this[o]).parentNode;for(var l=-1,c=n.length;++l<c;)(i=n[l])?(e.push(r=t.call(i,i.__data__,l,o)),r&&\\\"__data__\\\"in i&&(r.__data__=i.__data__)):e.push(null)}return H(a)},W.selectAll=function(t){var e,r,i=[];t=Z(t);for(var a=-1,o=this.length;++a<o;)for(var s=this[a],l=-1,c=s.length;++l<c;)(r=s[l])&&(i.push(e=n(t.call(r,r.__data__,l,a))),e.parentNode=r);return H(i)};var $=\\\"http://www.w3.org/1999/xhtml\\\",J={svg:\\\"http://www.w3.org/2000/svg\\\",xhtml:$,xlink:\\\"http://www.w3.org/1999/xlink\\\",xml:\\\"http://www.w3.org/XML/1998/namespace\\\",xmlns:\\\"http://www.w3.org/2000/xmlns/\\\"};function K(e,r){return e=t.ns.qualify(e),null==r?e.local?function(){this.removeAttributeNS(e.space,e.local)}:function(){this.removeAttribute(e)}:\\\"function\\\"==typeof r?e.local?function(){var t=r.apply(this,arguments);null==t?this.removeAttributeNS(e.space,e.local):this.setAttributeNS(e.space,e.local,t)}:function(){var t=r.apply(this,arguments);null==t?this.removeAttribute(e):this.setAttribute(e,t)}:e.local?function(){this.setAttributeNS(e.space,e.local,r)}:function(){this.setAttribute(e,r)}}function Q(t){return t.trim().replace(/\\\\s+/g,\\\" \\\")}function tt(e){return new RegExp(\\\"(?:^|\\\\\\\\s+)\\\"+t.requote(e)+\\\"(?:\\\\\\\\s+|$)\\\",\\\"g\\\")}function et(t){return(t+\\\"\\\").trim().split(/^|\\\\s+/)}function rt(t,e){var r=(t=et(t).map(nt)).length;return\\\"function\\\"==typeof e?function(){for(var n=-1,i=e.apply(this,arguments);++n<r;)t[n](this,i)}:function(){for(var n=-1;++n<r;)t[n](this,e)}}function nt(t){var e=tt(t);return function(r,n){if(i=r.classList)return n?i.add(t):i.remove(t);var i=r.getAttribute(\\\"class\\\")||\\\"\\\";n?(e.lastIndex=0,e.test(i)||r.setAttribute(\\\"class\\\",Q(i+\\\" \\\"+t))):r.setAttribute(\\\"class\\\",Q(i.replace(e,\\\" \\\")))}}function it(t,e,r){return null==e?function(){this.style.removeProperty(t)}:\\\"function\\\"==typeof e?function(){var n=e.apply(this,arguments);null==n?this.style.removeProperty(t):this.style.setProperty(t,n,r)}:function(){this.style.setProperty(t,e,r)}}function at(t,e){return null==e?function(){delete this[t]}:\\\"function\\\"==typeof e?function(){var r=e.apply(this,arguments);null==r?delete this[t]:this[t]=r}:function(){this[t]=e}}function ot(e){return\\\"function\\\"==typeof e?e:(e=t.ns.qualify(e)).local?function(){return this.ownerDocument.createElementNS(e.space,e.local)}:function(){var t=this.ownerDocument,r=this.namespaceURI;return r===$&&t.documentElement.namespaceURI===$?t.createElement(e):t.createElementNS(r,e)}}function st(){var t=this.parentNode;t&&t.removeChild(this)}function lt(t){return{__data__:t}}function ct(t){return function(){return Y(this,t)}}function ut(t,e){for(var r=0,n=t.length;r<n;r++)for(var i,a=t[r],o=0,s=a.length;o<s;o++)(i=a[o])&&e(i,o,r);return t}function ft(t){return U(t,ht),t}t.ns={prefix:J,qualify:function(t){var e=t.indexOf(\\\":\\\"),r=t;return e>=0&&\\\"xmlns\\\"!==(r=t.slice(0,e))&&(t=t.slice(e+1)),J.hasOwnProperty(r)?{space:J[r],local:t}:t}},W.attr=function(e,r){if(arguments.length<2){if(\\\"string\\\"==typeof e){var n=this.node();return(e=t.ns.qualify(e)).local?n.getAttributeNS(e.space,e.local):n.getAttribute(e)}for(r in e)this.each(K(r,e[r]));return this}return this.each(K(e,r))},W.classed=function(t,e){if(arguments.length<2){if(\\\"string\\\"==typeof t){var r=this.node(),n=(t=et(t)).length,i=-1;if(e=r.classList){for(;++i<n;)if(!e.contains(t[i]))return!1}else for(e=r.getAttribute(\\\"class\\\");++i<n;)if(!tt(t[i]).test(e))return!1;return!0}for(e in t)this.each(rt(e,t[e]));return this}return this.each(rt(t,e))},W.style=function(t,e,r){var n=arguments.length;if(n<3){if(\\\"string\\\"!=typeof t){for(r in n<2&&(e=\\\"\\\"),t)this.each(it(r,t[r],e));return this}if(n<2){var i=this.node();return o(i).getComputedStyle(i,null).getPropertyValue(t)}r=\\\"\\\"}return this.each(it(t,e,r))},W.property=function(t,e){if(arguments.length<2){if(\\\"string\\\"==typeof t)return this.node()[t];for(e in t)this.each(at(e,t[e]));return this}return this.each(at(t,e))},W.text=function(t){return arguments.length?this.each(\\\"function\\\"==typeof t?function(){var e=t.apply(this,arguments);this.textContent=null==e?\\\"\\\":e}:null==t?function(){this.textContent=\\\"\\\"}:function(){this.textContent=t}):this.node().textContent},W.html=function(t){return arguments.length?this.each(\\\"function\\\"==typeof t?function(){var e=t.apply(this,arguments);this.innerHTML=null==e?\\\"\\\":e}:null==t?function(){this.innerHTML=\\\"\\\"}:function(){this.innerHTML=t}):this.node().innerHTML},W.append=function(t){return t=ot(t),this.select(function(){return this.appendChild(t.apply(this,arguments))})},W.insert=function(t,e){return t=ot(t),e=X(e),this.select(function(){return this.insertBefore(t.apply(this,arguments),e.apply(this,arguments)||null)})},W.remove=function(){return this.each(st)},W.data=function(t,e){var r,n,i=-1,a=this.length;if(!arguments.length){for(t=new Array(a=(r=this[0]).length);++i<a;)(n=r[i])&&(t[i]=n.__data__);return t}function o(t,r){var n,i,a,o=t.length,u=r.length,f=Math.min(o,u),h=new Array(u),p=new Array(u),d=new Array(o);if(e){var g,v=new b,m=new Array(o);for(n=-1;++n<o;)(i=t[n])&&(v.has(g=e.call(i,i.__data__,n))?d[n]=i:v.set(g,i),m[n]=g);for(n=-1;++n<u;)(i=v.get(g=e.call(r,a=r[n],n)))?!0!==i&&(h[n]=i,i.__data__=a):p[n]=lt(a),v.set(g,!0);for(n=-1;++n<o;)n in m&&!0!==v.get(m[n])&&(d[n]=t[n])}else{for(n=-1;++n<f;)i=t[n],a=r[n],i?(i.__data__=a,h[n]=i):p[n]=lt(a);for(;n<u;++n)p[n]=lt(r[n]);for(;n<o;++n)d[n]=t[n]}p.update=h,p.parentNode=h.parentNode=d.parentNode=t.parentNode,s.push(p),l.push(h),c.push(d)}var s=ft([]),l=H([]),c=H([]);if(\\\"function\\\"==typeof t)for(;++i<a;)o(r=this[i],t.call(r,r.parentNode.__data__,i));else for(;++i<a;)o(r=this[i],t);return l.enter=function(){return s},l.exit=function(){return c},l},W.datum=function(t){return arguments.length?this.property(\\\"__data__\\\",t):this.property(\\\"__data__\\\")},W.filter=function(t){var e,r,n,i=[];\\\"function\\\"!=typeof t&&(t=ct(t));for(var a=0,o=this.length;a<o;a++){i.push(e=[]),e.parentNode=(r=this[a]).parentNode;for(var s=0,l=r.length;s<l;s++)(n=r[s])&&t.call(n,n.__data__,s,a)&&e.push(n)}return H(i)},W.order=function(){for(var t=-1,e=this.length;++t<e;)for(var r,n=this[t],i=n.length-1,a=n[i];--i>=0;)(r=n[i])&&(a&&a!==r.nextSibling&&a.parentNode.insertBefore(r,a),a=r);return this},W.sort=function(t){t=function(t){arguments.length||(t=h);return function(e,r){return e&&r?t(e.__data__,r.__data__):!e-!r}}.apply(this,arguments);for(var e=-1,r=this.length;++e<r;)this[e].sort(t);return this.order()},W.each=function(t){return ut(this,function(e,r,n){t.call(e,e.__data__,r,n)})},W.call=function(t){var e=n(arguments);return t.apply(e[0]=this,e),this},W.empty=function(){return!this.node()},W.node=function(){for(var t=0,e=this.length;t<e;t++)for(var r=this[t],n=0,i=r.length;n<i;n++){var a=r[n];if(a)return a}return null},W.size=function(){var t=0;return ut(this,function(){++t}),t};var ht=[];function pt(e,r,i){var a=\\\"__on\\\"+e,o=e.indexOf(\\\".\\\"),s=gt;o>0&&(e=e.slice(0,o));var l=dt.get(e);function c(){var t=this[a];t&&(this.removeEventListener(e,t,t.$),delete this[a])}return l&&(e=l,s=vt),o?r?function(){var t=s(r,n(arguments));c.call(this),this.addEventListener(e,this[a]=t,t.$=i),t._=r}:c:r?P:function(){var r,n=new RegExp(\\\"^__on([^.]+)\\\"+t.requote(e)+\\\"$\\\");for(var i in this)if(r=i.match(n)){var a=this[i];this.removeEventListener(r[1],a,a.$),delete this[i]}}}t.selection.enter=ft,t.selection.enter.prototype=ht,ht.append=W.append,ht.empty=W.empty,ht.node=W.node,ht.call=W.call,ht.size=W.size,ht.select=function(t){for(var e,r,n,i,a,o=[],s=-1,l=this.length;++s<l;){n=(i=this[s]).update,o.push(e=[]),e.parentNode=i.parentNode;for(var c=-1,u=i.length;++c<u;)(a=i[c])?(e.push(n[c]=r=t.call(i.parentNode,a.__data__,c,s)),r.__data__=a.__data__):e.push(null)}return H(o)},ht.insert=function(t,e){var r,n,i;return arguments.length<2&&(r=this,e=function(t,e,a){var o,s=r[a].update,l=s.length;for(a!=i&&(i=a,n=0),e>=n&&(n=e+1);!(o=s[n])&&++n<l;);return o}),W.insert.call(this,t,e)},t.select=function(t){var e;return\\\"string\\\"==typeof t?(e=[q(t,i)]).parentNode=i.documentElement:(e=[t]).parentNode=a(t),H([e])},t.selectAll=function(t){var e;return\\\"string\\\"==typeof t?(e=n(G(t,i))).parentNode=i.documentElement:(e=n(t)).parentNode=null,H([e])},W.on=function(t,e,r){var n=arguments.length;if(n<3){if(\\\"string\\\"!=typeof t){for(r in n<2&&(e=!1),t)this.each(pt(r,t[r],e));return this}if(n<2)return(n=this.node()[\\\"__on\\\"+t])&&n._;r=!1}return this.each(pt(t,e,r))};var dt=t.map({mouseenter:\\\"mouseover\\\",mouseleave:\\\"mouseout\\\"});function gt(e,r){return function(n){var i=t.event;t.event=n,r[0]=this.__data__;try{e.apply(this,r)}finally{t.event=i}}}function vt(t,e){var r=gt(t,e);return function(t){var e=t.relatedTarget;e&&(e===this||8&e.compareDocumentPosition(this))||r.call(this,t)}}i&&dt.forEach(function(t){\\\"on\\\"+t in i&&dt.remove(t)});var mt,yt=0;function xt(e){var r=\\\".dragsuppress-\\\"+ ++yt,n=\\\"click\\\"+r,i=t.select(o(e)).on(\\\"touchmove\\\"+r,B).on(\\\"dragstart\\\"+r,B).on(\\\"selectstart\\\"+r,B);if(null==mt&&(mt=!(\\\"onselectstart\\\"in e)&&I(e.style,\\\"userSelect\\\")),mt){var s=a(e).style,l=s[mt];s[mt]=\\\"none\\\"}return function(t){if(i.on(r,null),mt&&(s[mt]=l),t){var e=function(){i.on(n,null)};i.on(n,function(){B(),e()},!0),setTimeout(e,0)}}}t.mouse=function(t){return _t(t,N())};var bt=this.navigator&&/WebKit/.test(this.navigator.userAgent)?-1:0;function _t(e,r){r.changedTouches&&(r=r.changedTouches[0]);var n=e.ownerSVGElement||e;if(n.createSVGPoint){var i=n.createSVGPoint();if(bt<0){var a=o(e);if(a.scrollX||a.scrollY){var s=(n=t.select(\\\"body\\\").append(\\\"svg\\\").style({position:\\\"absolute\\\",top:0,left:0,margin:0,padding:0,border:\\\"none\\\"},\\\"important\\\"))[0][0].getScreenCTM();bt=!(s.f||s.e),n.remove()}}return bt?(i.x=r.pageX,i.y=r.pageY):(i.x=r.clientX,i.y=r.clientY),[(i=i.matrixTransform(e.getScreenCTM().inverse())).x,i.y]}var l=e.getBoundingClientRect();return[r.clientX-l.left-e.clientLeft,r.clientY-l.top-e.clientTop]}function wt(){return t.event.changedTouches[0].identifier}t.touch=function(t,e,r){if(arguments.length<3&&(r=e,e=N().changedTouches),e)for(var n,i=0,a=e.length;i<a;++i)if((n=e[i]).identifier===r)return _t(t,n)},t.behavior.drag=function(){var e=j(a,\\\"drag\\\",\\\"dragstart\\\",\\\"dragend\\\"),r=null,n=s(P,t.mouse,o,\\\"mousemove\\\",\\\"mouseup\\\"),i=s(wt,t.touch,z,\\\"touchmove\\\",\\\"touchend\\\");function a(){this.on(\\\"mousedown.drag\\\",n).on(\\\"touchstart.drag\\\",i)}function s(n,i,a,o,s){return function(){var l,c=t.event.target.correspondingElement||t.event.target,u=this.parentNode,f=e.of(this,arguments),h=0,p=n(),d=\\\".drag\\\"+(null==p?\\\"\\\":\\\"-\\\"+p),g=t.select(a(c)).on(o+d,function(){var t,e,r=i(u,p);if(!r)return;t=r[0]-m[0],e=r[1]-m[1],h|=t|e,m=r,f({type:\\\"drag\\\",x:r[0]+l[0],y:r[1]+l[1],dx:t,dy:e})}).on(s+d,function(){if(!i(u,p))return;g.on(o+d,null).on(s+d,null),v(h),f({type:\\\"dragend\\\"})}),v=xt(c),m=i(u,p);l=r?[(l=r.apply(this,arguments)).x-m[0],l.y-m[1]]:[0,0],f({type:\\\"dragstart\\\"})}}return a.origin=function(t){return arguments.length?(r=t,a):r},t.rebind(a,e,\\\"on\\\")},t.touches=function(t,e){return arguments.length<2&&(e=N().touches),e?n(e).map(function(e){var r=_t(t,e);return r.identifier=e.identifier,r}):[]};var kt=1e-6,Tt=kt*kt,At=Math.PI,Mt=2*At,St=Mt-kt,Et=At/2,Ct=At/180,Lt=180/At;function zt(t){return t>0?1:t<0?-1:0}function Ot(t,e,r){return(e[0]-t[0])*(r[1]-t[1])-(e[1]-t[1])*(r[0]-t[0])}function It(t){return t>1?0:t<-1?At:Math.acos(t)}function Dt(t){return t>1?Et:t<-1?-Et:Math.asin(t)}function Pt(t){return((t=Math.exp(t))+1/t)/2}function Rt(t){return(t=Math.sin(t/2))*t}var Ft=Math.SQRT2;t.interpolateZoom=function(t,e){var r,n,i=t[0],a=t[1],o=t[2],s=e[0],l=e[1],c=e[2],u=s-i,f=l-a,h=u*u+f*f;if(h<Tt)n=Math.log(c/o)/Ft,r=function(t){return[i+t*u,a+t*f,o*Math.exp(Ft*t*n)]};else{var p=Math.sqrt(h),d=(c*c-o*o+4*h)/(2*o*2*p),g=(c*c-o*o-4*h)/(2*c*2*p),v=Math.log(Math.sqrt(d*d+1)-d),m=Math.log(Math.sqrt(g*g+1)-g);n=(m-v)/Ft,r=function(t){var e,r=t*n,s=Pt(v),l=o/(2*p)*(s*(e=Ft*r+v,((e=Math.exp(2*e))-1)/(e+1))-function(t){return((t=Math.exp(t))-1/t)/2}(v));return[i+l*u,a+l*f,o*s/Pt(Ft*r+v)]}}return r.duration=1e3*n,r},t.behavior.zoom=function(){var e,r,n,a,s,l,c,u,f,h={x:0,y:0,k:1},p=[960,500],d=jt,g=250,v=0,m=\\\"mousedown.zoom\\\",y=\\\"mousemove.zoom\\\",x=\\\"mouseup.zoom\\\",b=\\\"touchstart.zoom\\\",_=j(w,\\\"zoomstart\\\",\\\"zoom\\\",\\\"zoomend\\\");function w(t){t.on(m,z).on(Nt+\\\".zoom\\\",I).on(\\\"dblclick.zoom\\\",D).on(b,O)}function k(t){return[(t[0]-h.x)/h.k,(t[1]-h.y)/h.k]}function T(t){h.k=Math.max(d[0],Math.min(d[1],t))}function A(t,e){e=function(t){return[t[0]*h.k+h.x,t[1]*h.k+h.y]}(e),h.x+=t[0]-e[0],h.y+=t[1]-e[1]}function M(e,n,i,a){e.__chart__={x:h.x,y:h.y,k:h.k},T(Math.pow(2,a)),A(r=n,i),e=t.select(e),g>0&&(e=e.transition().duration(g)),e.call(w.event)}function S(){c&&c.domain(l.range().map(function(t){return(t-h.x)/h.k}).map(l.invert)),f&&f.domain(u.range().map(function(t){return(t-h.y)/h.k}).map(u.invert))}function E(t){v++||t({type:\\\"zoomstart\\\"})}function C(t){S(),t({type:\\\"zoom\\\",scale:h.k,translate:[h.x,h.y]})}function L(t){--v||(t({type:\\\"zoomend\\\"}),r=null)}function z(){var e=this,r=_.of(e,arguments),n=0,i=t.select(o(e)).on(y,function(){n=1,A(t.mouse(e),a),C(r)}).on(x,function(){i.on(y,null).on(x,null),s(n),L(r)}),a=k(t.mouse(e)),s=xt(e);fs.call(e),E(r)}function O(){var e,r=this,n=_.of(r,arguments),i={},a=0,o=\\\".zoom-\\\"+t.event.changedTouches[0].identifier,l=\\\"touchmove\\\"+o,c=\\\"touchend\\\"+o,u=[],f=t.select(r),p=xt(r);function d(){var n=t.touches(r);return e=h.k,n.forEach(function(t){t.identifier in i&&(i[t.identifier]=k(t))}),n}function g(){var e=t.event.target;t.select(e).on(l,v).on(c,y),u.push(e);for(var n=t.event.changedTouches,o=0,f=n.length;o<f;++o)i[n[o].identifier]=null;var p=d(),g=Date.now();if(1===p.length){if(g-s<500){var m=p[0];M(r,m,i[m.identifier],Math.floor(Math.log(h.k)/Math.LN2)+1),B()}s=g}else if(p.length>1){m=p[0];var x=p[1],b=m[0]-x[0],_=m[1]-x[1];a=b*b+_*_}}function v(){var o,l,c,u,f=t.touches(r);fs.call(r);for(var h=0,p=f.length;h<p;++h,u=null)if(c=f[h],u=i[c.identifier]){if(l)break;o=c,l=u}if(u){var d=(d=c[0]-o[0])*d+(d=c[1]-o[1])*d,g=a&&Math.sqrt(d/a);o=[(o[0]+c[0])/2,(o[1]+c[1])/2],l=[(l[0]+u[0])/2,(l[1]+u[1])/2],T(g*e)}s=null,A(o,l),C(n)}function y(){if(t.event.touches.length){for(var e=t.event.changedTouches,r=0,a=e.length;r<a;++r)delete i[e[r].identifier];for(var s in i)return void d()}t.selectAll(u).on(o,null),f.on(m,z).on(b,O),p(),L(n)}g(),E(n),f.on(m,null).on(b,g)}function I(){var i=_.of(this,arguments);a?clearTimeout(a):(fs.call(this),e=k(r=n||t.mouse(this)),E(i)),a=setTimeout(function(){a=null,L(i)},50),B(),T(Math.pow(2,.002*Bt())*h.k),A(r,e),C(i)}function D(){var e=t.mouse(this),r=Math.log(h.k)/Math.LN2;M(this,e,k(e),t.event.shiftKey?Math.ceil(r)-1:Math.floor(r)+1)}return Nt||(Nt=\\\"onwheel\\\"in i?(Bt=function(){return-t.event.deltaY*(t.event.deltaMode?120:1)},\\\"wheel\\\"):\\\"onmousewheel\\\"in i?(Bt=function(){return t.event.wheelDelta},\\\"mousewheel\\\"):(Bt=function(){return-t.event.detail},\\\"MozMousePixelScroll\\\")),w.event=function(e){e.each(function(){var e=_.of(this,arguments),n=h;ds?t.select(this).transition().each(\\\"start.zoom\\\",function(){h=this.__chart__||{x:0,y:0,k:1},E(e)}).tween(\\\"zoom:zoom\\\",function(){var i=p[0],a=p[1],o=r?r[0]:i/2,s=r?r[1]:a/2,l=t.interpolateZoom([(o-h.x)/h.k,(s-h.y)/h.k,i/h.k],[(o-n.x)/n.k,(s-n.y)/n.k,i/n.k]);return function(t){var r=l(t),n=i/r[2];this.__chart__=h={x:o-r[0]*n,y:s-r[1]*n,k:n},C(e)}}).each(\\\"interrupt.zoom\\\",function(){L(e)}).each(\\\"end.zoom\\\",function(){L(e)}):(this.__chart__=h,E(e),C(e),L(e))})},w.translate=function(t){return arguments.length?(h={x:+t[0],y:+t[1],k:h.k},S(),w):[h.x,h.y]},w.scale=function(t){return arguments.length?(h={x:h.x,y:h.y,k:null},T(+t),S(),w):h.k},w.scaleExtent=function(t){return arguments.length?(d=null==t?jt:[+t[0],+t[1]],w):d},w.center=function(t){return arguments.length?(n=t&&[+t[0],+t[1]],w):n},w.size=function(t){return arguments.length?(p=t&&[+t[0],+t[1]],w):p},w.duration=function(t){return arguments.length?(g=+t,w):g},w.x=function(t){return arguments.length?(c=t,l=t.copy(),h={x:0,y:0,k:1},w):c},w.y=function(t){return arguments.length?(f=t,u=t.copy(),h={x:0,y:0,k:1},w):f},t.rebind(w,_,\\\"on\\\")};var Bt,Nt,jt=[0,1/0];function Vt(){}function Ut(t,e,r){return this instanceof Ut?(this.h=+t,this.s=+e,void(this.l=+r)):arguments.length<2?t instanceof Ut?new Ut(t.h,t.s,t.l):ue(\\\"\\\"+t,fe,Ut):new Ut(t,e,r)}t.color=Vt,Vt.prototype.toString=function(){return this.rgb()+\\\"\\\"},t.hsl=Ut;var Ht=Ut.prototype=new Vt;function qt(t,e,r){var n,i;function a(t){return Math.round(255*function(t){return t>360?t-=360:t<0&&(t+=360),t<60?n+(i-n)*t/60:t<180?i:t<240?n+(i-n)*(240-t)/60:n}(t))}return t=isNaN(t)?0:(t%=360)<0?t+360:t,e=isNaN(e)?0:e<0?0:e>1?1:e,n=2*(r=r<0?0:r>1?1:r)-(i=r<=.5?r*(1+e):r+e-r*e),new ae(a(t+120),a(t),a(t-120))}function Gt(e,r,n){return this instanceof Gt?(this.h=+e,this.c=+r,void(this.l=+n)):arguments.length<2?e instanceof Gt?new Gt(e.h,e.c,e.l):ee(e instanceof Xt?e.l:(e=he((e=t.rgb(e)).r,e.g,e.b)).l,e.a,e.b):new Gt(e,r,n)}Ht.brighter=function(t){return t=Math.pow(.7,arguments.length?t:1),new Ut(this.h,this.s,this.l/t)},Ht.darker=function(t){return t=Math.pow(.7,arguments.length?t:1),new Ut(this.h,this.s,t*this.l)},Ht.rgb=function(){return qt(this.h,this.s,this.l)},t.hcl=Gt;var Yt=Gt.prototype=new Vt;function Wt(t,e,r){return isNaN(t)&&(t=0),isNaN(e)&&(e=0),new Xt(r,Math.cos(t*=Ct)*e,Math.sin(t)*e)}function Xt(t,e,r){return this instanceof Xt?(this.l=+t,this.a=+e,void(this.b=+r)):arguments.length<2?t instanceof Xt?new Xt(t.l,t.a,t.b):t instanceof Gt?Wt(t.h,t.c,t.l):he((t=ae(t)).r,t.g,t.b):new Xt(t,e,r)}Yt.brighter=function(t){return new Gt(this.h,this.c,Math.min(100,this.l+Zt*(arguments.length?t:1)))},Yt.darker=function(t){return new Gt(this.h,this.c,Math.max(0,this.l-Zt*(arguments.length?t:1)))},Yt.rgb=function(){return Wt(this.h,this.c,this.l).rgb()},t.lab=Xt;var Zt=18,$t=.95047,Jt=1,Kt=1.08883,Qt=Xt.prototype=new Vt;function te(t,e,r){var n=(t+16)/116,i=n+e/500,a=n-r/200;return new ae(ie(3.2404542*(i=re(i)*$t)-1.5371385*(n=re(n)*Jt)-.4985314*(a=re(a)*Kt)),ie(-.969266*i+1.8760108*n+.041556*a),ie(.0556434*i-.2040259*n+1.0572252*a))}function ee(t,e,r){return t>0?new Gt(Math.atan2(r,e)*Lt,Math.sqrt(e*e+r*r),t):new Gt(NaN,NaN,t)}function re(t){return t>.206893034?t*t*t:(t-4/29)/7.787037}function ne(t){return t>.008856?Math.pow(t,1/3):7.787037*t+4/29}function ie(t){return Math.round(255*(t<=.00304?12.92*t:1.055*Math.pow(t,1/2.4)-.055))}function ae(t,e,r){return this instanceof ae?(this.r=~~t,this.g=~~e,void(this.b=~~r)):arguments.length<2?t instanceof ae?new ae(t.r,t.g,t.b):ue(\\\"\\\"+t,ae,qt):new ae(t,e,r)}function oe(t){return new ae(t>>16,t>>8&255,255&t)}function se(t){return oe(t)+\\\"\\\"}Qt.brighter=function(t){return new Xt(Math.min(100,this.l+Zt*(arguments.length?t:1)),this.a,this.b)},Qt.darker=function(t){return new Xt(Math.max(0,this.l-Zt*(arguments.length?t:1)),this.a,this.b)},Qt.rgb=function(){return te(this.l,this.a,this.b)},t.rgb=ae;var le=ae.prototype=new Vt;function ce(t){return t<16?\\\"0\\\"+Math.max(0,t).toString(16):Math.min(255,t).toString(16)}function ue(t,e,r){var n,i,a,o=0,s=0,l=0;if(n=/([a-z]+)\\\\((.*)\\\\)/.exec(t=t.toLowerCase()))switch(i=n[2].split(\\\",\\\"),n[1]){case\\\"hsl\\\":return r(parseFloat(i[0]),parseFloat(i[1])/100,parseFloat(i[2])/100);case\\\"rgb\\\":return e(de(i[0]),de(i[1]),de(i[2]))}return(a=ge.get(t))?e(a.r,a.g,a.b):(null==t||\\\"#\\\"!==t.charAt(0)||isNaN(a=parseInt(t.slice(1),16))||(4===t.length?(o=(3840&a)>>4,o|=o>>4,s=240&a,s|=s>>4,l=15&a,l|=l<<4):7===t.length&&(o=(16711680&a)>>16,s=(65280&a)>>8,l=255&a)),e(o,s,l))}function fe(t,e,r){var n,i,a=Math.min(t/=255,e/=255,r/=255),o=Math.max(t,e,r),s=o-a,l=(o+a)/2;return s?(i=l<.5?s/(o+a):s/(2-o-a),n=t==o?(e-r)/s+(e<r?6:0):e==o?(r-t)/s+2:(t-e)/s+4,n*=60):(n=NaN,i=l>0&&l<1?0:n),new Ut(n,i,l)}function he(t,e,r){var n=ne((.4124564*(t=pe(t))+.3575761*(e=pe(e))+.1804375*(r=pe(r)))/$t),i=ne((.2126729*t+.7151522*e+.072175*r)/Jt);return Xt(116*i-16,500*(n-i),200*(i-ne((.0193339*t+.119192*e+.9503041*r)/Kt)))}function pe(t){return(t/=255)<=.04045?t/12.92:Math.pow((t+.055)/1.055,2.4)}function de(t){var e=parseFloat(t);return\\\"%\\\"===t.charAt(t.length-1)?Math.round(2.55*e):e}le.brighter=function(t){t=Math.pow(.7,arguments.length?t:1);var e=this.r,r=this.g,n=this.b,i=30;return e||r||n?(e&&e<i&&(e=i),r&&r<i&&(r=i),n&&n<i&&(n=i),new ae(Math.min(255,e/t),Math.min(255,r/t),Math.min(255,n/t))):new ae(i,i,i)},le.darker=function(t){return new ae((t=Math.pow(.7,arguments.length?t:1))*this.r,t*this.g,t*this.b)},le.hsl=function(){return fe(this.r,this.g,this.b)},le.toString=function(){return\\\"#\\\"+ce(this.r)+ce(this.g)+ce(this.b)};var ge=t.map({aliceblue:15792383,antiquewhite:16444375,aqua:65535,aquamarine:8388564,azure:15794175,beige:16119260,bisque:16770244,black:0,blanchedalmond:16772045,blue:255,blueviolet:9055202,brown:10824234,burlywood:14596231,cadetblue:6266528,chartreuse:8388352,chocolate:13789470,coral:16744272,cornflowerblue:6591981,cornsilk:16775388,crimson:14423100,cyan:65535,darkblue:139,darkcyan:35723,darkgoldenrod:12092939,darkgray:11119017,darkgreen:25600,darkgrey:11119017,darkkhaki:12433259,darkmagenta:9109643,darkolivegreen:5597999,darkorange:16747520,darkorchid:10040012,darkred:9109504,darksalmon:15308410,darkseagreen:9419919,darkslateblue:4734347,darkslategray:3100495,darkslategrey:3100495,darkturquoise:52945,darkviolet:9699539,deeppink:16716947,deepskyblue:49151,dimgray:6908265,dimgrey:6908265,dodgerblue:2003199,firebrick:11674146,floralwhite:16775920,forestgreen:2263842,fuchsia:16711935,gainsboro:14474460,ghostwhite:16316671,gold:16766720,goldenrod:14329120,gray:8421504,green:32768,greenyellow:11403055,grey:8421504,honeydew:15794160,hotpink:16738740,indianred:13458524,indigo:4915330,ivory:16777200,khaki:15787660,lavender:15132410,lavenderblush:16773365,lawngreen:8190976,lemonchiffon:16775885,lightblue:11393254,lightcoral:15761536,lightcyan:14745599,lightgoldenrodyellow:16448210,lightgray:13882323,lightgreen:9498256,lightgrey:13882323,lightpink:16758465,lightsalmon:16752762,lightseagreen:2142890,lightskyblue:8900346,lightslategray:7833753,lightslategrey:7833753,lightsteelblue:11584734,lightyellow:16777184,lime:65280,limegreen:3329330,linen:16445670,magenta:16711935,maroon:8388608,mediumaquamarine:6737322,mediumblue:205,mediumorchid:12211667,mediumpurple:9662683,mediumseagreen:3978097,mediumslateblue:8087790,mediumspringgreen:64154,mediumturquoise:4772300,mediumvioletred:13047173,midnightblue:1644912,mintcream:16121850,mistyrose:16770273,moccasin:16770229,navajowhite:16768685,navy:128,oldlace:16643558,olive:8421376,olivedrab:7048739,orange:16753920,orangered:16729344,orchid:14315734,palegoldenrod:15657130,palegreen:10025880,paleturquoise:11529966,palevioletred:14381203,papayawhip:16773077,peachpuff:16767673,peru:13468991,pink:16761035,plum:14524637,powderblue:11591910,purple:8388736,rebeccapurple:6697881,red:16711680,rosybrown:12357519,royalblue:4286945,saddlebrown:9127187,salmon:16416882,sandybrown:16032864,seagreen:3050327,seashell:16774638,sienna:10506797,silver:12632256,skyblue:8900331,slateblue:6970061,slategray:7372944,slategrey:7372944,snow:16775930,springgreen:65407,steelblue:4620980,tan:13808780,teal:32896,thistle:14204888,tomato:16737095,turquoise:4251856,violet:15631086,wheat:16113331,white:16777215,whitesmoke:16119285,yellow:16776960,yellowgreen:10145074});function ve(t){return\\\"function\\\"==typeof t?t:function(){return t}}function me(t){return function(e,r,n){return 2===arguments.length&&\\\"function\\\"==typeof r&&(n=r,r=null),ye(e,r,t,n)}}function ye(e,r,i,a){var o={},s=t.dispatch(\\\"beforesend\\\",\\\"progress\\\",\\\"load\\\",\\\"error\\\"),l={},c=new XMLHttpRequest,u=null;function f(){var t,e=c.status;if(!e&&function(t){var e=t.responseType;return e&&\\\"text\\\"!==e?t.response:t.responseText}(c)||e>=200&&e<300||304===e){try{t=i.call(o,c)}catch(t){return void s.error.call(o,t)}s.load.call(o,t)}else s.error.call(o,c)}return!this.XDomainRequest||\\\"withCredentials\\\"in c||!/^(http(s)?:)?\\\\/\\\\//.test(e)||(c=new XDomainRequest),\\\"onload\\\"in c?c.onload=c.onerror=f:c.onreadystatechange=function(){c.readyState>3&&f()},c.onprogress=function(e){var r=t.event;t.event=e;try{s.progress.call(o,c)}finally{t.event=r}},o.header=function(t,e){return t=(t+\\\"\\\").toLowerCase(),arguments.length<2?l[t]:(null==e?delete l[t]:l[t]=e+\\\"\\\",o)},o.mimeType=function(t){return arguments.length?(r=null==t?null:t+\\\"\\\",o):r},o.responseType=function(t){return arguments.length?(u=t,o):u},o.response=function(t){return i=t,o},[\\\"get\\\",\\\"post\\\"].forEach(function(t){o[t]=function(){return o.send.apply(o,[t].concat(n(arguments)))}}),o.send=function(t,n,i){if(2===arguments.length&&\\\"function\\\"==typeof n&&(i=n,n=null),c.open(t,e,!0),null==r||\\\"accept\\\"in l||(l.accept=r+\\\",*/*\\\"),c.setRequestHeader)for(var a in l)c.setRequestHeader(a,l[a]);return null!=r&&c.overrideMimeType&&c.overrideMimeType(r),null!=u&&(c.responseType=u),null!=i&&o.on(\\\"error\\\",i).on(\\\"load\\\",function(t){i(null,t)}),s.beforesend.call(o,c),c.send(null==n?null:n),o},o.abort=function(){return c.abort(),o},t.rebind(o,s,\\\"on\\\"),null==a?o:o.get(function(t){return 1===t.length?function(e,r){t(null==e?r:null)}:t}(a))}ge.forEach(function(t,e){ge.set(t,oe(e))}),t.functor=ve,t.xhr=me(z),t.dsv=function(t,e){var r=new RegExp('[\\\"'+t+\\\"\\\\n]\\\"),n=t.charCodeAt(0);function i(t,r,n){arguments.length<3&&(n=r,r=null);var i=ye(t,e,null==r?a:o(r),n);return i.row=function(t){return arguments.length?i.response(null==(r=t)?a:o(t)):r},i}function a(t){return i.parse(t.responseText)}function o(t){return function(e){return i.parse(e.responseText,t)}}function s(e){return e.map(l).join(t)}function l(t){return r.test(t)?'\\\"'+t.replace(/\\\\\\\"/g,'\\\"\\\"')+'\\\"':t}return i.parse=function(t,e){var r;return i.parseRows(t,function(t,n){if(r)return r(t,n-1);var i=new Function(\\\"d\\\",\\\"return {\\\"+t.map(function(t,e){return JSON.stringify(t)+\\\": d[\\\"+e+\\\"]\\\"}).join(\\\",\\\")+\\\"}\\\");r=e?function(t,r){return e(i(t),r)}:i})},i.parseRows=function(t,e){var r,i,a={},o={},s=[],l=t.length,c=0,u=0;function f(){if(c>=l)return o;if(i)return i=!1,a;var e=c;if(34===t.charCodeAt(e)){for(var r=e;r++<l;)if(34===t.charCodeAt(r)){if(34!==t.charCodeAt(r+1))break;++r}return c=r+2,13===(s=t.charCodeAt(r+1))?(i=!0,10===t.charCodeAt(r+2)&&++c):10===s&&(i=!0),t.slice(e+1,r).replace(/\\\"\\\"/g,'\\\"')}for(;c<l;){var s,u=1;if(10===(s=t.charCodeAt(c++)))i=!0;else if(13===s)i=!0,10===t.charCodeAt(c)&&(++c,++u);else if(s!==n)continue;return t.slice(e,c-u)}return t.slice(e)}for(;(r=f())!==o;){for(var h=[];r!==a&&r!==o;)h.push(r),r=f();e&&null==(h=e(h,u++))||s.push(h)}return s},i.format=function(e){if(Array.isArray(e[0]))return i.formatRows(e);var r=new L,n=[];return e.forEach(function(t){for(var e in t)r.has(e)||n.push(r.add(e))}),[n.map(l).join(t)].concat(e.map(function(e){return n.map(function(t){return l(e[t])}).join(t)})).join(\\\"\\\\n\\\")},i.formatRows=function(t){return t.map(s).join(\\\"\\\\n\\\")},i},t.csv=t.dsv(\\\",\\\",\\\"text/csv\\\"),t.tsv=t.dsv(\\\"\\\\t\\\",\\\"text/tab-separated-values\\\");var xe,be,_e,we,ke=this[I(this,\\\"requestAnimationFrame\\\")]||function(t){setTimeout(t,17)};function Te(t,e,r){var n=arguments.length;n<2&&(e=0),n<3&&(r=Date.now());var i={c:t,t:r+e,n:null};return be?be.n=i:xe=i,be=i,_e||(we=clearTimeout(we),_e=1,ke(Ae)),i}function Ae(){var t=Me(),e=Se()-t;e>24?(isFinite(e)&&(clearTimeout(we),we=setTimeout(Ae,e)),_e=0):(_e=1,ke(Ae))}function Me(){for(var t=Date.now(),e=xe;e;)t>=e.t&&e.c(t-e.t)&&(e.c=null),e=e.n;return t}function Se(){for(var t,e=xe,r=1/0;e;)e.c?(e.t<r&&(r=e.t),e=(t=e).n):e=t?t.n=e.n:xe=e.n;return be=t,r}function Ee(t,e){return e-(t?Math.ceil(Math.log(t)/Math.LN10):1)}t.timer=function(){Te.apply(this,arguments)},t.timer.flush=function(){Me(),Se()},t.round=function(t,e){return e?Math.round(t*(e=Math.pow(10,e)))/e:Math.round(t)};var Ce=[\\\"y\\\",\\\"z\\\",\\\"a\\\",\\\"f\\\",\\\"p\\\",\\\"n\\\",\\\"\\\\xb5\\\",\\\"m\\\",\\\"\\\",\\\"k\\\",\\\"M\\\",\\\"G\\\",\\\"T\\\",\\\"P\\\",\\\"E\\\",\\\"Z\\\",\\\"Y\\\"].map(function(t,e){var r=Math.pow(10,3*y(8-e));return{scale:e>8?function(t){return t/r}:function(t){return t*r},symbol:t}});t.formatPrefix=function(e,r){var n=0;return(e=+e)&&(e<0&&(e*=-1),r&&(e=t.round(e,Ee(e,r))),n=1+Math.floor(1e-12+Math.log(e)/Math.LN10),n=Math.max(-24,Math.min(24,3*Math.floor((n-1)/3)))),Ce[8+n/3]};var Le=/(?:([^{])?([<>=^]))?([+\\\\- ])?([$#])?(0)?(\\\\d+)?(,)?(\\\\.-?\\\\d+)?([a-z%])?/i,ze=t.map({b:function(t){return t.toString(2)},c:function(t){return String.fromCharCode(t)},o:function(t){return t.toString(8)},x:function(t){return t.toString(16)},X:function(t){return t.toString(16).toUpperCase()},g:function(t,e){return t.toPrecision(e)},e:function(t,e){return t.toExponential(e)},f:function(t,e){return t.toFixed(e)},r:function(e,r){return(e=t.round(e,Ee(e,r))).toFixed(Math.max(0,Math.min(20,Ee(e*(1+1e-15),r))))}});function Oe(t){return t+\\\"\\\"}var Ie=t.time={},De=Date;function Pe(){this._=new Date(arguments.length>1?Date.UTC.apply(this,arguments):arguments[0])}Pe.prototype={getDate:function(){return this._.getUTCDate()},getDay:function(){return this._.getUTCDay()},getFullYear:function(){return this._.getUTCFullYear()},getHours:function(){return this._.getUTCHours()},getMilliseconds:function(){return this._.getUTCMilliseconds()},getMinutes:function(){return this._.getUTCMinutes()},getMonth:function(){return this._.getUTCMonth()},getSeconds:function(){return this._.getUTCSeconds()},getTime:function(){return this._.getTime()},getTimezoneOffset:function(){return 0},valueOf:function(){return this._.valueOf()},setDate:function(){Re.setUTCDate.apply(this._,arguments)},setDay:function(){Re.setUTCDay.apply(this._,arguments)},setFullYear:function(){Re.setUTCFullYear.apply(this._,arguments)},setHours:function(){Re.setUTCHours.apply(this._,arguments)},setMilliseconds:function(){Re.setUTCMilliseconds.apply(this._,arguments)},setMinutes:function(){Re.setUTCMinutes.apply(this._,arguments)},setMonth:function(){Re.setUTCMonth.apply(this._,arguments)},setSeconds:function(){Re.setUTCSeconds.apply(this._,arguments)},setTime:function(){Re.setTime.apply(this._,arguments)}};var Re=Date.prototype;function Fe(t,e,r){function n(e){var r=t(e),n=a(r,1);return e-r<n-e?r:n}function i(r){return e(r=t(new De(r-1)),1),r}function a(t,r){return e(t=new De(+t),r),t}function o(t,n,a){var o=i(t),s=[];if(a>1)for(;o<n;)r(o)%a||s.push(new Date(+o)),e(o,1);else for(;o<n;)s.push(new Date(+o)),e(o,1);return s}t.floor=t,t.round=n,t.ceil=i,t.offset=a,t.range=o;var s=t.utc=Be(t);return s.floor=s,s.round=Be(n),s.ceil=Be(i),s.offset=Be(a),s.range=function(t,e,r){try{De=Pe;var n=new Pe;return n._=t,o(n,e,r)}finally{De=Date}},t}function Be(t){return function(e,r){try{De=Pe;var n=new Pe;return n._=e,t(n,r)._}finally{De=Date}}}Ie.year=Fe(function(t){return(t=Ie.day(t)).setMonth(0,1),t},function(t,e){t.setFullYear(t.getFullYear()+e)},function(t){return t.getFullYear()}),Ie.years=Ie.year.range,Ie.years.utc=Ie.year.utc.range,Ie.day=Fe(function(t){var e=new De(2e3,0);return e.setFullYear(t.getFullYear(),t.getMonth(),t.getDate()),e},function(t,e){t.setDate(t.getDate()+e)},function(t){return t.getDate()-1}),Ie.days=Ie.day.range,Ie.days.utc=Ie.day.utc.range,Ie.dayOfYear=function(t){var e=Ie.year(t);return Math.floor((t-e-6e4*(t.getTimezoneOffset()-e.getTimezoneOffset()))/864e5)},[\\\"sunday\\\",\\\"monday\\\",\\\"tuesday\\\",\\\"wednesday\\\",\\\"thursday\\\",\\\"friday\\\",\\\"saturday\\\"].forEach(function(t,e){e=7-e;var r=Ie[t]=Fe(function(t){return(t=Ie.day(t)).setDate(t.getDate()-(t.getDay()+e)%7),t},function(t,e){t.setDate(t.getDate()+7*Math.floor(e))},function(t){var r=Ie.year(t).getDay();return Math.floor((Ie.dayOfYear(t)+(r+e)%7)/7)-(r!==e)});Ie[t+\\\"s\\\"]=r.range,Ie[t+\\\"s\\\"].utc=r.utc.range,Ie[t+\\\"OfYear\\\"]=function(t){var r=Ie.year(t).getDay();return Math.floor((Ie.dayOfYear(t)+(r+e)%7)/7)}}),Ie.week=Ie.sunday,Ie.weeks=Ie.sunday.range,Ie.weeks.utc=Ie.sunday.utc.range,Ie.weekOfYear=Ie.sundayOfYear;var Ne={\\\"-\\\":\\\"\\\",_:\\\" \\\",0:\\\"0\\\"},je=/^\\\\s*\\\\d+/,Ve=/^%/;function Ue(t,e,r){var n=t<0?\\\"-\\\":\\\"\\\",i=(n?-t:t)+\\\"\\\",a=i.length;return n+(a<r?new Array(r-a+1).join(e)+i:i)}function He(e){return new RegExp(\\\"^(?:\\\"+e.map(t.requote).join(\\\"|\\\")+\\\")\\\",\\\"i\\\")}function qe(t){for(var e=new b,r=-1,n=t.length;++r<n;)e.set(t[r].toLowerCase(),r);return e}function Ge(t,e,r){je.lastIndex=0;var n=je.exec(e.slice(r,r+1));return n?(t.w=+n[0],r+n[0].length):-1}function Ye(t,e,r){je.lastIndex=0;var n=je.exec(e.slice(r));return n?(t.U=+n[0],r+n[0].length):-1}function We(t,e,r){je.lastIndex=0;var n=je.exec(e.slice(r));return n?(t.W=+n[0],r+n[0].length):-1}function Xe(t,e,r){je.lastIndex=0;var n=je.exec(e.slice(r,r+4));return n?(t.y=+n[0],r+n[0].length):-1}function Ze(t,e,r){je.lastIndex=0;var n,i=je.exec(e.slice(r,r+2));return i?(t.y=(n=+i[0])+(n>68?1900:2e3),r+i[0].length):-1}function $e(t,e,r){return/^[+-]\\\\d{4}$/.test(e=e.slice(r,r+5))?(t.Z=-e,r+5):-1}function Je(t,e,r){je.lastIndex=0;var n=je.exec(e.slice(r,r+2));return n?(t.m=n[0]-1,r+n[0].length):-1}function Ke(t,e,r){je.lastIndex=0;var n=je.exec(e.slice(r,r+2));return n?(t.d=+n[0],r+n[0].length):-1}function Qe(t,e,r){je.lastIndex=0;var n=je.exec(e.slice(r,r+3));return n?(t.j=+n[0],r+n[0].length):-1}function tr(t,e,r){je.lastIndex=0;var n=je.exec(e.slice(r,r+2));return n?(t.H=+n[0],r+n[0].length):-1}function er(t,e,r){je.lastIndex=0;var n=je.exec(e.slice(r,r+2));return n?(t.M=+n[0],r+n[0].length):-1}function rr(t,e,r){je.lastIndex=0;var n=je.exec(e.slice(r,r+2));return n?(t.S=+n[0],r+n[0].length):-1}function nr(t,e,r){je.lastIndex=0;var n=je.exec(e.slice(r,r+3));return n?(t.L=+n[0],r+n[0].length):-1}function ir(t){var e=t.getTimezoneOffset(),r=e>0?\\\"-\\\":\\\"+\\\",n=y(e)/60|0,i=y(e)%60;return r+Ue(n,\\\"0\\\",2)+Ue(i,\\\"0\\\",2)}function ar(t,e,r){Ve.lastIndex=0;var n=Ve.exec(e.slice(r,r+1));return n?r+n[0].length:-1}function or(t){for(var e=t.length,r=-1;++r<e;)t[r][0]=this(t[r][0]);return function(e){for(var r=0,n=t[r];!n[1](e);)n=t[++r];return n[0](e)}}t.locale=function(e){return{numberFormat:function(e){var r=e.decimal,n=e.thousands,i=e.grouping,a=e.currency,o=i&&n?function(t,e){for(var r=t.length,a=[],o=0,s=i[0],l=0;r>0&&s>0&&(l+s+1>e&&(s=Math.max(1,e-l)),a.push(t.substring(r-=s,r+s)),!((l+=s+1)>e));)s=i[o=(o+1)%i.length];return a.reverse().join(n)}:z;return function(e){var n=Le.exec(e),i=n[1]||\\\" \\\",s=n[2]||\\\">\\\",l=n[3]||\\\"-\\\",c=n[4]||\\\"\\\",u=n[5],f=+n[6],h=n[7],p=n[8],d=n[9],g=1,v=\\\"\\\",m=\\\"\\\",y=!1,x=!0;switch(p&&(p=+p.substring(1)),(u||\\\"0\\\"===i&&\\\"=\\\"===s)&&(u=i=\\\"0\\\",s=\\\"=\\\"),d){case\\\"n\\\":h=!0,d=\\\"g\\\";break;case\\\"%\\\":g=100,m=\\\"%\\\",d=\\\"f\\\";break;case\\\"p\\\":g=100,m=\\\"%\\\",d=\\\"r\\\";break;case\\\"b\\\":case\\\"o\\\":case\\\"x\\\":case\\\"X\\\":\\\"#\\\"===c&&(v=\\\"0\\\"+d.toLowerCase());case\\\"c\\\":x=!1;case\\\"d\\\":y=!0,p=0;break;case\\\"s\\\":g=-1,d=\\\"r\\\"}\\\"$\\\"===c&&(v=a[0],m=a[1]),\\\"r\\\"!=d||p||(d=\\\"g\\\"),null!=p&&(\\\"g\\\"==d?p=Math.max(1,Math.min(21,p)):\\\"e\\\"!=d&&\\\"f\\\"!=d||(p=Math.max(0,Math.min(20,p)))),d=ze.get(d)||Oe;var b=u&&h;return function(e){var n=m;if(y&&e%1)return\\\"\\\";var a=e<0||0===e&&1/e<0?(e=-e,\\\"-\\\"):\\\"-\\\"===l?\\\"\\\":l;if(g<0){var c=t.formatPrefix(e,p);e=c.scale(e),n=c.symbol+m}else e*=g;var _,w,k=(e=d(e,p)).lastIndexOf(\\\".\\\");if(k<0){var T=x?e.lastIndexOf(\\\"e\\\"):-1;T<0?(_=e,w=\\\"\\\"):(_=e.substring(0,T),w=e.substring(T))}else _=e.substring(0,k),w=r+e.substring(k+1);!u&&h&&(_=o(_,1/0));var A=v.length+_.length+w.length+(b?0:a.length),M=A<f?new Array(A=f-A+1).join(i):\\\"\\\";return b&&(_=o(M+_,M.length?f-w.length:1/0)),a+=v,e=_+w,(\\\"<\\\"===s?a+e+M:\\\">\\\"===s?M+a+e:\\\"^\\\"===s?M.substring(0,A>>=1)+a+e+M.substring(A):a+(b?e:M+e))+n}}}(e),timeFormat:function(e){var r=e.dateTime,n=e.date,i=e.time,a=e.periods,o=e.days,s=e.shortDays,l=e.months,c=e.shortMonths;function u(t){var e=t.length;function r(r){for(var n,i,a,o=[],s=-1,l=0;++s<e;)37===t.charCodeAt(s)&&(o.push(t.slice(l,s)),null!=(i=Ne[n=t.charAt(++s)])&&(n=t.charAt(++s)),(a=_[n])&&(n=a(r,null==i?\\\"e\\\"===n?\\\" \\\":\\\"0\\\":i)),o.push(n),l=s+1);return o.push(t.slice(l,s)),o.join(\\\"\\\")}return r.parse=function(e){var r={y:1900,m:0,d:1,H:0,M:0,S:0,L:0,Z:null};if(f(r,t,e,0)!=e.length)return null;\\\"p\\\"in r&&(r.H=r.H%12+12*r.p);var n=null!=r.Z&&De!==Pe,i=new(n?Pe:De);return\\\"j\\\"in r?i.setFullYear(r.y,0,r.j):\\\"W\\\"in r||\\\"U\\\"in r?(\\\"w\\\"in r||(r.w=\\\"W\\\"in r?1:0),i.setFullYear(r.y,0,1),i.setFullYear(r.y,0,\\\"W\\\"in r?(r.w+6)%7+7*r.W-(i.getDay()+5)%7:r.w+7*r.U-(i.getDay()+6)%7)):i.setFullYear(r.y,r.m,r.d),i.setHours(r.H+(r.Z/100|0),r.M+r.Z%100,r.S,r.L),n?i._:i},r.toString=function(){return t},r}function f(t,e,r,n){for(var i,a,o,s=0,l=e.length,c=r.length;s<l;){if(n>=c)return-1;if(37===(i=e.charCodeAt(s++))){if(o=e.charAt(s++),!(a=w[o in Ne?e.charAt(s++):o])||(n=a(t,r,n))<0)return-1}else if(i!=r.charCodeAt(n++))return-1}return n}u.utc=function(t){var e=u(t);function r(t){try{var r=new(De=Pe);return r._=t,e(r)}finally{De=Date}}return r.parse=function(t){try{De=Pe;var r=e.parse(t);return r&&r._}finally{De=Date}},r.toString=e.toString,r},u.multi=u.utc.multi=or;var h=t.map(),p=He(o),d=qe(o),g=He(s),v=qe(s),m=He(l),y=qe(l),x=He(c),b=qe(c);a.forEach(function(t,e){h.set(t.toLowerCase(),e)});var _={a:function(t){return s[t.getDay()]},A:function(t){return o[t.getDay()]},b:function(t){return c[t.getMonth()]},B:function(t){return l[t.getMonth()]},c:u(r),d:function(t,e){return Ue(t.getDate(),e,2)},e:function(t,e){return Ue(t.getDate(),e,2)},H:function(t,e){return Ue(t.getHours(),e,2)},I:function(t,e){return Ue(t.getHours()%12||12,e,2)},j:function(t,e){return Ue(1+Ie.dayOfYear(t),e,3)},L:function(t,e){return Ue(t.getMilliseconds(),e,3)},m:function(t,e){return Ue(t.getMonth()+1,e,2)},M:function(t,e){return Ue(t.getMinutes(),e,2)},p:function(t){return a[+(t.getHours()>=12)]},S:function(t,e){return Ue(t.getSeconds(),e,2)},U:function(t,e){return Ue(Ie.sundayOfYear(t),e,2)},w:function(t){return t.getDay()},W:function(t,e){return Ue(Ie.mondayOfYear(t),e,2)},x:u(n),X:u(i),y:function(t,e){return Ue(t.getFullYear()%100,e,2)},Y:function(t,e){return Ue(t.getFullYear()%1e4,e,4)},Z:ir,\\\"%\\\":function(){return\\\"%\\\"}},w={a:function(t,e,r){g.lastIndex=0;var n=g.exec(e.slice(r));return n?(t.w=v.get(n[0].toLowerCase()),r+n[0].length):-1},A:function(t,e,r){p.lastIndex=0;var n=p.exec(e.slice(r));return n?(t.w=d.get(n[0].toLowerCase()),r+n[0].length):-1},b:function(t,e,r){x.lastIndex=0;var n=x.exec(e.slice(r));return n?(t.m=b.get(n[0].toLowerCase()),r+n[0].length):-1},B:function(t,e,r){m.lastIndex=0;var n=m.exec(e.slice(r));return n?(t.m=y.get(n[0].toLowerCase()),r+n[0].length):-1},c:function(t,e,r){return f(t,_.c.toString(),e,r)},d:Ke,e:Ke,H:tr,I:tr,j:Qe,L:nr,m:Je,M:er,p:function(t,e,r){var n=h.get(e.slice(r,r+=2).toLowerCase());return null==n?-1:(t.p=n,r)},S:rr,U:Ye,w:Ge,W:We,x:function(t,e,r){return f(t,_.x.toString(),e,r)},X:function(t,e,r){return f(t,_.X.toString(),e,r)},y:Ze,Y:Xe,Z:$e,\\\"%\\\":ar};return u}(e)}};var sr=t.locale({decimal:\\\".\\\",thousands:\\\",\\\",grouping:[3],currency:[\\\"$\\\",\\\"\\\"],dateTime:\\\"%a %b %e %X %Y\\\",date:\\\"%m/%d/%Y\\\",time:\\\"%H:%M:%S\\\",periods:[\\\"AM\\\",\\\"PM\\\"],days:[\\\"Sunday\\\",\\\"Monday\\\",\\\"Tuesday\\\",\\\"Wednesday\\\",\\\"Thursday\\\",\\\"Friday\\\",\\\"Saturday\\\"],shortDays:[\\\"Sun\\\",\\\"Mon\\\",\\\"Tue\\\",\\\"Wed\\\",\\\"Thu\\\",\\\"Fri\\\",\\\"Sat\\\"],months:[\\\"January\\\",\\\"February\\\",\\\"March\\\",\\\"April\\\",\\\"May\\\",\\\"June\\\",\\\"July\\\",\\\"August\\\",\\\"September\\\",\\\"October\\\",\\\"November\\\",\\\"December\\\"],shortMonths:[\\\"Jan\\\",\\\"Feb\\\",\\\"Mar\\\",\\\"Apr\\\",\\\"May\\\",\\\"Jun\\\",\\\"Jul\\\",\\\"Aug\\\",\\\"Sep\\\",\\\"Oct\\\",\\\"Nov\\\",\\\"Dec\\\"]});function lr(){}t.format=sr.numberFormat,t.geo={},lr.prototype={s:0,t:0,add:function(t){ur(t,this.t,cr),ur(cr.s,this.s,this),this.s?this.t+=cr.t:this.s=cr.t},reset:function(){this.s=this.t=0},valueOf:function(){return this.s}};var cr=new lr;function ur(t,e,r){var n=r.s=t+e,i=n-t,a=n-i;r.t=t-a+(e-i)}function fr(t,e){t&&pr.hasOwnProperty(t.type)&&pr[t.type](t,e)}t.geo.stream=function(t,e){t&&hr.hasOwnProperty(t.type)?hr[t.type](t,e):fr(t,e)};var hr={Feature:function(t,e){fr(t.geometry,e)},FeatureCollection:function(t,e){for(var r=t.features,n=-1,i=r.length;++n<i;)fr(r[n].geometry,e)}},pr={Sphere:function(t,e){e.sphere()},Point:function(t,e){t=t.coordinates,e.point(t[0],t[1],t[2])},MultiPoint:function(t,e){for(var r=t.coordinates,n=-1,i=r.length;++n<i;)t=r[n],e.point(t[0],t[1],t[2])},LineString:function(t,e){dr(t.coordinates,e,0)},MultiLineString:function(t,e){for(var r=t.coordinates,n=-1,i=r.length;++n<i;)dr(r[n],e,0)},Polygon:function(t,e){gr(t.coordinates,e)},MultiPolygon:function(t,e){for(var r=t.coordinates,n=-1,i=r.length;++n<i;)gr(r[n],e)},GeometryCollection:function(t,e){for(var r=t.geometries,n=-1,i=r.length;++n<i;)fr(r[n],e)}};function dr(t,e,r){var n,i=-1,a=t.length-r;for(e.lineStart();++i<a;)n=t[i],e.point(n[0],n[1],n[2]);e.lineEnd()}function gr(t,e){var r=-1,n=t.length;for(e.polygonStart();++r<n;)dr(t[r],e,1);e.polygonEnd()}t.geo.area=function(e){return vr=0,t.geo.stream(e,Cr),vr};var vr,mr,yr,xr,br,_r,wr,kr,Tr,Ar,Mr,Sr,Er=new lr,Cr={sphere:function(){vr+=4*At},point:P,lineStart:P,lineEnd:P,polygonStart:function(){Er.reset(),Cr.lineStart=Lr},polygonEnd:function(){var t=2*Er;vr+=t<0?4*At+t:t,Cr.lineStart=Cr.lineEnd=Cr.point=P}};function Lr(){var t,e,r,n,i;function a(t,e){e=e*Ct/2+At/4;var a=(t*=Ct)-r,o=a>=0?1:-1,s=o*a,l=Math.cos(e),c=Math.sin(e),u=i*c,f=n*l+u*Math.cos(s),h=u*o*Math.sin(s);Er.add(Math.atan2(h,f)),r=t,n=l,i=c}Cr.point=function(o,s){Cr.point=a,r=(t=o)*Ct,n=Math.cos(s=(e=s)*Ct/2+At/4),i=Math.sin(s)},Cr.lineEnd=function(){a(t,e)}}function zr(t){var e=t[0],r=t[1],n=Math.cos(r);return[n*Math.cos(e),n*Math.sin(e),Math.sin(r)]}function Or(t,e){return t[0]*e[0]+t[1]*e[1]+t[2]*e[2]}function Ir(t,e){return[t[1]*e[2]-t[2]*e[1],t[2]*e[0]-t[0]*e[2],t[0]*e[1]-t[1]*e[0]]}function Dr(t,e){t[0]+=e[0],t[1]+=e[1],t[2]+=e[2]}function Pr(t,e){return[t[0]*e,t[1]*e,t[2]*e]}function Rr(t){var e=Math.sqrt(t[0]*t[0]+t[1]*t[1]+t[2]*t[2]);t[0]/=e,t[1]/=e,t[2]/=e}function Fr(t){return[Math.atan2(t[1],t[0]),Dt(t[2])]}function Br(t,e){return y(t[0]-e[0])<kt&&y(t[1]-e[1])<kt}t.geo.bounds=function(){var e,r,n,i,a,o,s,l,c,u,f,h={point:p,lineStart:g,lineEnd:v,polygonStart:function(){h.point=m,h.lineStart=x,h.lineEnd=b,c=0,Cr.polygonStart()},polygonEnd:function(){Cr.polygonEnd(),h.point=p,h.lineStart=g,h.lineEnd=v,Er<0?(e=-(n=180),r=-(i=90)):c>kt?i=90:c<-kt&&(r=-90),f[0]=e,f[1]=n}};function p(t,a){u.push(f=[e=t,n=t]),a<r&&(r=a),a>i&&(i=a)}function d(t,o){var s=zr([t*Ct,o*Ct]);if(l){var c=Ir(l,s),u=Ir([c[1],-c[0],0],c);Rr(u),u=Fr(u);var f=t-a,h=f>0?1:-1,d=u[0]*Lt*h,g=y(f)>180;if(g^(h*a<d&&d<h*t))(v=u[1]*Lt)>i&&(i=v);else if(g^(h*a<(d=(d+360)%360-180)&&d<h*t)){var v;(v=-u[1]*Lt)<r&&(r=v)}else o<r&&(r=o),o>i&&(i=o);g?t<a?_(e,t)>_(e,n)&&(n=t):_(t,n)>_(e,n)&&(e=t):n>=e?(t<e&&(e=t),t>n&&(n=t)):t>a?_(e,t)>_(e,n)&&(n=t):_(t,n)>_(e,n)&&(e=t)}else p(t,o);l=s,a=t}function g(){h.point=d}function v(){f[0]=e,f[1]=n,h.point=p,l=null}function m(t,e){if(l){var r=t-a;c+=y(r)>180?r+(r>0?360:-360):r}else o=t,s=e;Cr.point(t,e),d(t,e)}function x(){Cr.lineStart()}function b(){m(o,s),Cr.lineEnd(),y(c)>kt&&(e=-(n=180)),f[0]=e,f[1]=n,l=null}function _(t,e){return(e-=t)<0?e+360:e}function w(t,e){return t[0]-e[0]}function k(t,e){return e[0]<=e[1]?e[0]<=t&&t<=e[1]:t<e[0]||e[1]<t}return function(a){if(i=n=-(e=r=1/0),u=[],t.geo.stream(a,h),c=u.length){u.sort(w);for(var o=1,s=[g=u[0]];o<c;++o)k((p=u[o])[0],g)||k(p[1],g)?(_(g[0],p[1])>_(g[0],g[1])&&(g[1]=p[1]),_(p[0],g[1])>_(g[0],g[1])&&(g[0]=p[0])):s.push(g=p);for(var l,c,p,d=-1/0,g=(o=0,s[c=s.length-1]);o<=c;g=p,++o)p=s[o],(l=_(g[1],p[0]))>d&&(d=l,e=p[0],n=g[1])}return u=f=null,e===1/0||r===1/0?[[NaN,NaN],[NaN,NaN]]:[[e,r],[n,i]]}}(),t.geo.centroid=function(e){mr=yr=xr=br=_r=wr=kr=Tr=Ar=Mr=Sr=0,t.geo.stream(e,Nr);var r=Ar,n=Mr,i=Sr,a=r*r+n*n+i*i;return a<Tt&&(r=wr,n=kr,i=Tr,yr<kt&&(r=xr,n=br,i=_r),(a=r*r+n*n+i*i)<Tt)?[NaN,NaN]:[Math.atan2(n,r)*Lt,Dt(i/Math.sqrt(a))*Lt]};var Nr={sphere:P,point:jr,lineStart:Ur,lineEnd:Hr,polygonStart:function(){Nr.lineStart=qr},polygonEnd:function(){Nr.lineStart=Ur}};function jr(t,e){t*=Ct;var r=Math.cos(e*=Ct);Vr(r*Math.cos(t),r*Math.sin(t),Math.sin(e))}function Vr(t,e,r){xr+=(t-xr)/++mr,br+=(e-br)/mr,_r+=(r-_r)/mr}function Ur(){var t,e,r;function n(n,i){n*=Ct;var a=Math.cos(i*=Ct),o=a*Math.cos(n),s=a*Math.sin(n),l=Math.sin(i),c=Math.atan2(Math.sqrt((c=e*l-r*s)*c+(c=r*o-t*l)*c+(c=t*s-e*o)*c),t*o+e*s+r*l);yr+=c,wr+=c*(t+(t=o)),kr+=c*(e+(e=s)),Tr+=c*(r+(r=l)),Vr(t,e,r)}Nr.point=function(i,a){i*=Ct;var o=Math.cos(a*=Ct);t=o*Math.cos(i),e=o*Math.sin(i),r=Math.sin(a),Nr.point=n,Vr(t,e,r)}}function Hr(){Nr.point=jr}function qr(){var t,e,r,n,i;function a(t,e){t*=Ct;var a=Math.cos(e*=Ct),o=a*Math.cos(t),s=a*Math.sin(t),l=Math.sin(e),c=n*l-i*s,u=i*o-r*l,f=r*s-n*o,h=Math.sqrt(c*c+u*u+f*f),p=r*o+n*s+i*l,d=h&&-It(p)/h,g=Math.atan2(h,p);Ar+=d*c,Mr+=d*u,Sr+=d*f,yr+=g,wr+=g*(r+(r=o)),kr+=g*(n+(n=s)),Tr+=g*(i+(i=l)),Vr(r,n,i)}Nr.point=function(o,s){t=o,e=s,Nr.point=a,o*=Ct;var l=Math.cos(s*=Ct);r=l*Math.cos(o),n=l*Math.sin(o),i=Math.sin(s),Vr(r,n,i)},Nr.lineEnd=function(){a(t,e),Nr.lineEnd=Hr,Nr.point=jr}}function Gr(t,e){function r(r,n){return r=t(r,n),e(r[0],r[1])}return t.invert&&e.invert&&(r.invert=function(r,n){return(r=e.invert(r,n))&&t.invert(r[0],r[1])}),r}function Yr(){return!0}function Wr(t,e,r,n,i){var a=[],o=[];if(t.forEach(function(t){if(!((e=t.length-1)<=0)){var e,r=t[0],n=t[e];if(Br(r,n)){i.lineStart();for(var s=0;s<e;++s)i.point((r=t[s])[0],r[1]);i.lineEnd()}else{var l=new Zr(r,t,null,!0),c=new Zr(r,null,l,!1);l.o=c,a.push(l),o.push(c),l=new Zr(n,t,null,!1),c=new Zr(n,null,l,!0),l.o=c,a.push(l),o.push(c)}}}),o.sort(e),Xr(a),Xr(o),a.length){for(var s=0,l=r,c=o.length;s<c;++s)o[s].e=l=!l;for(var u,f,h=a[0];;){for(var p=h,d=!0;p.v;)if((p=p.n)===h)return;u=p.z,i.lineStart();do{if(p.v=p.o.v=!0,p.e){if(d)for(s=0,c=u.length;s<c;++s)i.point((f=u[s])[0],f[1]);else n(p.x,p.n.x,1,i);p=p.n}else{if(d)for(s=(u=p.p.z).length-1;s>=0;--s)i.point((f=u[s])[0],f[1]);else n(p.x,p.p.x,-1,i);p=p.p}u=(p=p.o).z,d=!d}while(!p.v);i.lineEnd()}}}function Xr(t){if(e=t.length){for(var e,r,n=0,i=t[0];++n<e;)i.n=r=t[n],r.p=i,i=r;i.n=r=t[0],r.p=i}}function Zr(t,e,r,n){this.x=t,this.z=e,this.o=r,this.e=n,this.v=!1,this.n=this.p=null}function $r(e,r,n,i){return function(a,o){var s,l=r(o),c=a.invert(i[0],i[1]),u={point:f,lineStart:p,lineEnd:d,polygonStart:function(){u.point=b,u.lineStart=_,u.lineEnd=w,s=[],g=[]},polygonEnd:function(){u.point=f,u.lineStart=p,u.lineEnd=d,s=t.merge(s);var e=function(t,e){var r=t[0],n=t[1],i=[Math.sin(r),-Math.cos(r),0],a=0,o=0;Er.reset();for(var s=0,l=e.length;s<l;++s){var c=e[s],u=c.length;if(u)for(var f=c[0],h=f[0],p=f[1]/2+At/4,d=Math.sin(p),g=Math.cos(p),v=1;;){v===u&&(v=0);var m=(t=c[v])[0],y=t[1]/2+At/4,x=Math.sin(y),b=Math.cos(y),_=m-h,w=_>=0?1:-1,k=w*_,T=k>At,A=d*x;if(Er.add(Math.atan2(A*w*Math.sin(k),g*b+A*Math.cos(k))),a+=T?_+w*Mt:_,T^h>=r^m>=r){var M=Ir(zr(f),zr(t));Rr(M);var S=Ir(i,M);Rr(S);var E=(T^_>=0?-1:1)*Dt(S[2]);(n>E||n===E&&(M[0]||M[1]))&&(o+=T^_>=0?1:-1)}if(!v++)break;h=m,d=x,g=b,f=t}}return(a<-kt||a<kt&&Er<-kt)^1&o}(c,g);s.length?(x||(o.polygonStart(),x=!0),Wr(s,Qr,e,n,o)):e&&(x||(o.polygonStart(),x=!0),o.lineStart(),n(null,null,1,o),o.lineEnd()),x&&(o.polygonEnd(),x=!1),s=g=null},sphere:function(){o.polygonStart(),o.lineStart(),n(null,null,1,o),o.lineEnd(),o.polygonEnd()}};function f(t,r){var n=a(t,r);e(t=n[0],r=n[1])&&o.point(t,r)}function h(t,e){var r=a(t,e);l.point(r[0],r[1])}function p(){u.point=h,l.lineStart()}function d(){u.point=f,l.lineEnd()}var g,v,m=Kr(),y=r(m),x=!1;function b(t,e){v.push([t,e]);var r=a(t,e);y.point(r[0],r[1])}function _(){y.lineStart(),v=[]}function w(){b(v[0][0],v[0][1]),y.lineEnd();var t,e=y.clean(),r=m.buffer(),n=r.length;if(v.pop(),g.push(v),v=null,n)if(1&e){var i,a=-1;if((n=(t=r[0]).length-1)>0){for(x||(o.polygonStart(),x=!0),o.lineStart();++a<n;)o.point((i=t[a])[0],i[1]);o.lineEnd()}}else n>1&&2&e&&r.push(r.pop().concat(r.shift())),s.push(r.filter(Jr))}return u}}function Jr(t){return t.length>1}function Kr(){var t,e=[];return{lineStart:function(){e.push(t=[])},point:function(e,r){t.push([e,r])},lineEnd:P,buffer:function(){var r=e;return e=[],t=null,r},rejoin:function(){e.length>1&&e.push(e.pop().concat(e.shift()))}}}function Qr(t,e){return((t=t.x)[0]<0?t[1]-Et-kt:Et-t[1])-((e=e.x)[0]<0?e[1]-Et-kt:Et-e[1])}var tn=$r(Yr,function(t){var e,r=NaN,n=NaN,i=NaN;return{lineStart:function(){t.lineStart(),e=1},point:function(a,o){var s=a>0?At:-At,l=y(a-r);y(l-At)<kt?(t.point(r,n=(n+o)/2>0?Et:-Et),t.point(i,n),t.lineEnd(),t.lineStart(),t.point(s,n),t.point(a,n),e=0):i!==s&&l>=At&&(y(r-i)<kt&&(r-=i*kt),y(a-s)<kt&&(a-=s*kt),n=function(t,e,r,n){var i,a,o=Math.sin(t-r);return y(o)>kt?Math.atan((Math.sin(e)*(a=Math.cos(n))*Math.sin(r)-Math.sin(n)*(i=Math.cos(e))*Math.sin(t))/(i*a*o)):(e+n)/2}(r,n,a,o),t.point(i,n),t.lineEnd(),t.lineStart(),t.point(s,n),e=0),t.point(r=a,n=o),i=s},lineEnd:function(){t.lineEnd(),r=n=NaN},clean:function(){return 2-e}}},function(t,e,r,n){var i;if(null==t)i=r*Et,n.point(-At,i),n.point(0,i),n.point(At,i),n.point(At,0),n.point(At,-i),n.point(0,-i),n.point(-At,-i),n.point(-At,0),n.point(-At,i);else if(y(t[0]-e[0])>kt){var a=t[0]<e[0]?At:-At;i=r*a/2,n.point(-a,i),n.point(0,i),n.point(a,i)}else n.point(e[0],e[1])},[-At,-At/2]);function en(t,e,r,n){return function(i){var a,o=i.a,s=i.b,l=o.x,c=o.y,u=0,f=1,h=s.x-l,p=s.y-c;if(a=t-l,h||!(a>0)){if(a/=h,h<0){if(a<u)return;a<f&&(f=a)}else if(h>0){if(a>f)return;a>u&&(u=a)}if(a=r-l,h||!(a<0)){if(a/=h,h<0){if(a>f)return;a>u&&(u=a)}else if(h>0){if(a<u)return;a<f&&(f=a)}if(a=e-c,p||!(a>0)){if(a/=p,p<0){if(a<u)return;a<f&&(f=a)}else if(p>0){if(a>f)return;a>u&&(u=a)}if(a=n-c,p||!(a<0)){if(a/=p,p<0){if(a>f)return;a>u&&(u=a)}else if(p>0){if(a<u)return;a<f&&(f=a)}return u>0&&(i.a={x:l+u*h,y:c+u*p}),f<1&&(i.b={x:l+f*h,y:c+f*p}),i}}}}}}var rn=1e9;function nn(e,r,n,i){return function(l){var c,u,f,h,p,d,g,v,m,y,x,b=l,_=Kr(),w=en(e,r,n,i),k={point:M,lineStart:function(){k.point=S,u&&u.push(f=[]);y=!0,m=!1,g=v=NaN},lineEnd:function(){c&&(S(h,p),d&&m&&_.rejoin(),c.push(_.buffer()));k.point=M,m&&l.lineEnd()},polygonStart:function(){l=_,c=[],u=[],x=!0},polygonEnd:function(){l=b,c=t.merge(c);var r=function(t){for(var e=0,r=u.length,n=t[1],i=0;i<r;++i)for(var a,o=1,s=u[i],l=s.length,c=s[0];o<l;++o)a=s[o],c[1]<=n?a[1]>n&&Ot(c,a,t)>0&&++e:a[1]<=n&&Ot(c,a,t)<0&&--e,c=a;return 0!==e}([e,i]),n=x&&r,a=c.length;(n||a)&&(l.polygonStart(),n&&(l.lineStart(),T(null,null,1,l),l.lineEnd()),a&&Wr(c,o,r,T,l),l.polygonEnd()),c=u=f=null}};function T(t,o,l,c){var u=0,f=0;if(null==t||(u=a(t,l))!==(f=a(o,l))||s(t,o)<0^l>0)do{c.point(0===u||3===u?e:n,u>1?i:r)}while((u=(u+l+4)%4)!==f);else c.point(o[0],o[1])}function A(t,a){return e<=t&&t<=n&&r<=a&&a<=i}function M(t,e){A(t,e)&&l.point(t,e)}function S(t,e){var r=A(t=Math.max(-rn,Math.min(rn,t)),e=Math.max(-rn,Math.min(rn,e)));if(u&&f.push([t,e]),y)h=t,p=e,d=r,y=!1,r&&(l.lineStart(),l.point(t,e));else if(r&&m)l.point(t,e);else{var n={a:{x:g,y:v},b:{x:t,y:e}};w(n)?(m||(l.lineStart(),l.point(n.a.x,n.a.y)),l.point(n.b.x,n.b.y),r||l.lineEnd(),x=!1):r&&(l.lineStart(),l.point(t,e),x=!1)}g=t,v=e,m=r}return k};function a(t,i){return y(t[0]-e)<kt?i>0?0:3:y(t[0]-n)<kt?i>0?2:1:y(t[1]-r)<kt?i>0?1:0:i>0?3:2}function o(t,e){return s(t.x,e.x)}function s(t,e){var r=a(t,1),n=a(e,1);return r!==n?r-n:0===r?e[1]-t[1]:1===r?t[0]-e[0]:2===r?t[1]-e[1]:e[0]-t[0]}}function an(t){var e=0,r=At/3,n=Cn(t),i=n(e,r);return i.parallels=function(t){return arguments.length?n(e=t[0]*At/180,r=t[1]*At/180):[e/At*180,r/At*180]},i}function on(t,e){var r=Math.sin(t),n=(r+Math.sin(e))/2,i=1+r*(2*n-r),a=Math.sqrt(i)/n;function o(t,e){var r=Math.sqrt(i-2*n*Math.sin(e))/n;return[r*Math.sin(t*=n),a-r*Math.cos(t)]}return o.invert=function(t,e){var r=a-e;return[Math.atan2(t,r)/n,Dt((i-(t*t+r*r)*n*n)/(2*n))]},o}t.geo.clipExtent=function(){var t,e,r,n,i,a,o={stream:function(t){return i&&(i.valid=!1),(i=a(t)).valid=!0,i},extent:function(s){return arguments.length?(a=nn(t=+s[0][0],e=+s[0][1],r=+s[1][0],n=+s[1][1]),i&&(i.valid=!1,i=null),o):[[t,e],[r,n]]}};return o.extent([[0,0],[960,500]])},(t.geo.conicEqualArea=function(){return an(on)}).raw=on,t.geo.albers=function(){return t.geo.conicEqualArea().rotate([96,0]).center([-.6,38.7]).parallels([29.5,45.5]).scale(1070)},t.geo.albersUsa=function(){var e,r,n,i,a=t.geo.albers(),o=t.geo.conicEqualArea().rotate([154,0]).center([-2,58.5]).parallels([55,65]),s=t.geo.conicEqualArea().rotate([157,0]).center([-3,19.9]).parallels([8,18]),l={point:function(t,r){e=[t,r]}};function c(t){var a=t[0],o=t[1];return e=null,r(a,o),e||(n(a,o),e)||i(a,o),e}return c.invert=function(t){var e=a.scale(),r=a.translate(),n=(t[0]-r[0])/e,i=(t[1]-r[1])/e;return(i>=.12&&i<.234&&n>=-.425&&n<-.214?o:i>=.166&&i<.234&&n>=-.214&&n<-.115?s:a).invert(t)},c.stream=function(t){var e=a.stream(t),r=o.stream(t),n=s.stream(t);return{point:function(t,i){e.point(t,i),r.point(t,i),n.point(t,i)},sphere:function(){e.sphere(),r.sphere(),n.sphere()},lineStart:function(){e.lineStart(),r.lineStart(),n.lineStart()},lineEnd:function(){e.lineEnd(),r.lineEnd(),n.lineEnd()},polygonStart:function(){e.polygonStart(),r.polygonStart(),n.polygonStart()},polygonEnd:function(){e.polygonEnd(),r.polygonEnd(),n.polygonEnd()}}},c.precision=function(t){return arguments.length?(a.precision(t),o.precision(t),s.precision(t),c):a.precision()},c.scale=function(t){return arguments.length?(a.scale(t),o.scale(.35*t),s.scale(t),c.translate(a.translate())):a.scale()},c.translate=function(t){if(!arguments.length)return a.translate();var e=a.scale(),u=+t[0],f=+t[1];return r=a.translate(t).clipExtent([[u-.455*e,f-.238*e],[u+.455*e,f+.238*e]]).stream(l).point,n=o.translate([u-.307*e,f+.201*e]).clipExtent([[u-.425*e+kt,f+.12*e+kt],[u-.214*e-kt,f+.234*e-kt]]).stream(l).point,i=s.translate([u-.205*e,f+.212*e]).clipExtent([[u-.214*e+kt,f+.166*e+kt],[u-.115*e-kt,f+.234*e-kt]]).stream(l).point,c},c.scale(1070)};var sn,ln,cn,un,fn,hn,pn={point:P,lineStart:P,lineEnd:P,polygonStart:function(){ln=0,pn.lineStart=dn},polygonEnd:function(){pn.lineStart=pn.lineEnd=pn.point=P,sn+=y(ln/2)}};function dn(){var t,e,r,n;function i(t,e){ln+=n*t-r*e,r=t,n=e}pn.point=function(a,o){pn.point=i,t=r=a,e=n=o},pn.lineEnd=function(){i(t,e)}}var gn={point:function(t,e){t<cn&&(cn=t);t>fn&&(fn=t);e<un&&(un=e);e>hn&&(hn=e)},lineStart:P,lineEnd:P,polygonStart:P,polygonEnd:P};function vn(){var t=mn(4.5),e=[],r={point:n,lineStart:function(){r.point=i},lineEnd:o,polygonStart:function(){r.lineEnd=s},polygonEnd:function(){r.lineEnd=o,r.point=n},pointRadius:function(e){return t=mn(e),r},result:function(){if(e.length){var t=e.join(\\\"\\\");return e=[],t}}};function n(r,n){e.push(\\\"M\\\",r,\\\",\\\",n,t)}function i(t,n){e.push(\\\"M\\\",t,\\\",\\\",n),r.point=a}function a(t,r){e.push(\\\"L\\\",t,\\\",\\\",r)}function o(){r.point=n}function s(){e.push(\\\"Z\\\")}return r}function mn(t){return\\\"m0,\\\"+t+\\\"a\\\"+t+\\\",\\\"+t+\\\" 0 1,1 0,\\\"+-2*t+\\\"a\\\"+t+\\\",\\\"+t+\\\" 0 1,1 0,\\\"+2*t+\\\"z\\\"}var yn,xn={point:bn,lineStart:_n,lineEnd:wn,polygonStart:function(){xn.lineStart=kn},polygonEnd:function(){xn.point=bn,xn.lineStart=_n,xn.lineEnd=wn}};function bn(t,e){xr+=t,br+=e,++_r}function _n(){var t,e;function r(r,n){var i=r-t,a=n-e,o=Math.sqrt(i*i+a*a);wr+=o*(t+r)/2,kr+=o*(e+n)/2,Tr+=o,bn(t=r,e=n)}xn.point=function(n,i){xn.point=r,bn(t=n,e=i)}}function wn(){xn.point=bn}function kn(){var t,e,r,n;function i(t,e){var i=t-r,a=e-n,o=Math.sqrt(i*i+a*a);wr+=o*(r+t)/2,kr+=o*(n+e)/2,Tr+=o,Ar+=(o=n*t-r*e)*(r+t),Mr+=o*(n+e),Sr+=3*o,bn(r=t,n=e)}xn.point=function(a,o){xn.point=i,bn(t=r=a,e=n=o)},xn.lineEnd=function(){i(t,e)}}function Tn(t){var e=4.5,r={point:n,lineStart:function(){r.point=i},lineEnd:o,polygonStart:function(){r.lineEnd=s},polygonEnd:function(){r.lineEnd=o,r.point=n},pointRadius:function(t){return e=t,r},result:P};function n(r,n){t.moveTo(r+e,n),t.arc(r,n,e,0,Mt)}function i(e,n){t.moveTo(e,n),r.point=a}function a(e,r){t.lineTo(e,r)}function o(){r.point=n}function s(){t.closePath()}return r}function An(t){var e=.5,r=Math.cos(30*Ct),n=16;function i(e){return(n?function(e){var r,i,o,s,l,c,u,f,h,p,d,g,v={point:m,lineStart:y,lineEnd:b,polygonStart:function(){e.polygonStart(),v.lineStart=_},polygonEnd:function(){e.polygonEnd(),v.lineStart=y}};function m(r,n){r=t(r,n),e.point(r[0],r[1])}function y(){f=NaN,v.point=x,e.lineStart()}function x(r,i){var o=zr([r,i]),s=t(r,i);a(f,h,u,p,d,g,f=s[0],h=s[1],u=r,p=o[0],d=o[1],g=o[2],n,e),e.point(f,h)}function b(){v.point=m,e.lineEnd()}function _(){y(),v.point=w,v.lineEnd=k}function w(t,e){x(r=t,e),i=f,o=h,s=p,l=d,c=g,v.point=x}function k(){a(f,h,u,p,d,g,i,o,r,s,l,c,n,e),v.lineEnd=b,b()}return v}:function(e){return Sn(e,function(r,n){r=t(r,n),e.point(r[0],r[1])})})(e)}function a(n,i,o,s,l,c,u,f,h,p,d,g,v,m){var x=u-n,b=f-i,_=x*x+b*b;if(_>4*e&&v--){var w=s+p,k=l+d,T=c+g,A=Math.sqrt(w*w+k*k+T*T),M=Math.asin(T/=A),S=y(y(T)-1)<kt||y(o-h)<kt?(o+h)/2:Math.atan2(k,w),E=t(S,M),C=E[0],L=E[1],z=C-n,O=L-i,I=b*z-x*O;(I*I/_>e||y((x*z+b*O)/_-.5)>.3||s*p+l*d+c*g<r)&&(a(n,i,o,s,l,c,C,L,S,w/=A,k/=A,T,v,m),m.point(C,L),a(C,L,S,w,k,T,u,f,h,p,d,g,v,m))}}return i.precision=function(t){return arguments.length?(n=(e=t*t)>0&&16,i):Math.sqrt(e)},i}function Mn(t){this.stream=t}function Sn(t,e){return{point:e,sphere:function(){t.sphere()},lineStart:function(){t.lineStart()},lineEnd:function(){t.lineEnd()},polygonStart:function(){t.polygonStart()},polygonEnd:function(){t.polygonEnd()}}}function En(t){return Cn(function(){return t})()}function Cn(e){var r,n,i,a,o,s,l=An(function(t,e){return[(t=r(t,e))[0]*c+a,o-t[1]*c]}),c=150,u=480,f=250,h=0,p=0,d=0,g=0,v=0,m=tn,x=z,b=null,_=null;function w(t){return[(t=i(t[0]*Ct,t[1]*Ct))[0]*c+a,o-t[1]*c]}function k(t){return(t=i.invert((t[0]-a)/c,(o-t[1])/c))&&[t[0]*Lt,t[1]*Lt]}function T(){i=Gr(n=In(d,g,v),r);var t=r(h,p);return a=u-t[0]*c,o=f+t[1]*c,A()}function A(){return s&&(s.valid=!1,s=null),w}return w.stream=function(t){return s&&(s.valid=!1),(s=Ln(m(n,l(x(t))))).valid=!0,s},w.clipAngle=function(t){return arguments.length?(m=null==t?(b=t,tn):function(t){var e=Math.cos(t),r=e>0,n=y(e)>kt;return $r(i,function(t){var e,s,l,c,u;return{lineStart:function(){c=l=!1,u=1},point:function(f,h){var p,d=[f,h],g=i(f,h),v=r?g?0:o(f,h):g?o(f+(f<0?At:-At),h):0;if(!e&&(c=l=g)&&t.lineStart(),g!==l&&(p=a(e,d),(Br(e,p)||Br(d,p))&&(d[0]+=kt,d[1]+=kt,g=i(d[0],d[1]))),g!==l)u=0,g?(t.lineStart(),p=a(d,e),t.point(p[0],p[1])):(p=a(e,d),t.point(p[0],p[1]),t.lineEnd()),e=p;else if(n&&e&&r^g){var m;v&s||!(m=a(d,e,!0))||(u=0,r?(t.lineStart(),t.point(m[0][0],m[0][1]),t.point(m[1][0],m[1][1]),t.lineEnd()):(t.point(m[1][0],m[1][1]),t.lineEnd(),t.lineStart(),t.point(m[0][0],m[0][1])))}!g||e&&Br(e,d)||t.point(d[0],d[1]),e=d,l=g,s=v},lineEnd:function(){l&&t.lineEnd(),e=null},clean:function(){return u|(c&&l)<<1}}},Fn(t,6*Ct),r?[0,-t]:[-At,t-At]);function i(t,r){return Math.cos(t)*Math.cos(r)>e}function a(t,r,n){var i=[1,0,0],a=Ir(zr(t),zr(r)),o=Or(a,a),s=a[0],l=o-s*s;if(!l)return!n&&t;var c=e*o/l,u=-e*s/l,f=Ir(i,a),h=Pr(i,c);Dr(h,Pr(a,u));var p=f,d=Or(h,p),g=Or(p,p),v=d*d-g*(Or(h,h)-1);if(!(v<0)){var m=Math.sqrt(v),x=Pr(p,(-d-m)/g);if(Dr(x,h),x=Fr(x),!n)return x;var b,_=t[0],w=r[0],k=t[1],T=r[1];w<_&&(b=_,_=w,w=b);var A=w-_,M=y(A-At)<kt;if(!M&&T<k&&(b=k,k=T,T=b),M||A<kt?M?k+T>0^x[1]<(y(x[0]-_)<kt?k:T):k<=x[1]&&x[1]<=T:A>At^(_<=x[0]&&x[0]<=w)){var S=Pr(p,(-d+m)/g);return Dr(S,h),[x,Fr(S)]}}}function o(e,n){var i=r?t:At-t,a=0;return e<-i?a|=1:e>i&&(a|=2),n<-i?a|=4:n>i&&(a|=8),a}}((b=+t)*Ct),A()):b},w.clipExtent=function(t){return arguments.length?(_=t,x=t?nn(t[0][0],t[0][1],t[1][0],t[1][1]):z,A()):_},w.scale=function(t){return arguments.length?(c=+t,T()):c},w.translate=function(t){return arguments.length?(u=+t[0],f=+t[1],T()):[u,f]},w.center=function(t){return arguments.length?(h=t[0]%360*Ct,p=t[1]%360*Ct,T()):[h*Lt,p*Lt]},w.rotate=function(t){return arguments.length?(d=t[0]%360*Ct,g=t[1]%360*Ct,v=t.length>2?t[2]%360*Ct:0,T()):[d*Lt,g*Lt,v*Lt]},t.rebind(w,l,\\\"precision\\\"),function(){return r=e.apply(this,arguments),w.invert=r.invert&&k,T()}}function Ln(t){return Sn(t,function(e,r){t.point(e*Ct,r*Ct)})}function zn(t,e){return[t,e]}function On(t,e){return[t>At?t-Mt:t<-At?t+Mt:t,e]}function In(t,e,r){return t?e||r?Gr(Pn(t),Rn(e,r)):Pn(t):e||r?Rn(e,r):On}function Dn(t){return function(e,r){return[(e+=t)>At?e-Mt:e<-At?e+Mt:e,r]}}function Pn(t){var e=Dn(t);return e.invert=Dn(-t),e}function Rn(t,e){var r=Math.cos(t),n=Math.sin(t),i=Math.cos(e),a=Math.sin(e);function o(t,e){var o=Math.cos(e),s=Math.cos(t)*o,l=Math.sin(t)*o,c=Math.sin(e),u=c*r+s*n;return[Math.atan2(l*i-u*a,s*r-c*n),Dt(u*i+l*a)]}return o.invert=function(t,e){var o=Math.cos(e),s=Math.cos(t)*o,l=Math.sin(t)*o,c=Math.sin(e),u=c*i-l*a;return[Math.atan2(l*i+c*a,s*r+u*n),Dt(u*r-s*n)]},o}function Fn(t,e){var r=Math.cos(t),n=Math.sin(t);return function(i,a,o,s){var l=o*e;null!=i?(i=Bn(r,i),a=Bn(r,a),(o>0?i<a:i>a)&&(i+=o*Mt)):(i=t+o*Mt,a=t-.5*l);for(var c,u=i;o>0?u>a:u<a;u-=l)s.point((c=Fr([r,-n*Math.cos(u),-n*Math.sin(u)]))[0],c[1])}}function Bn(t,e){var r=zr(e);r[0]-=t,Rr(r);var n=It(-r[1]);return((-r[2]<0?-n:n)+2*Math.PI-kt)%(2*Math.PI)}function Nn(e,r,n){var i=t.range(e,r-kt,n).concat(r);return function(t){return i.map(function(e){return[t,e]})}}function jn(e,r,n){var i=t.range(e,r-kt,n).concat(r);return function(t){return i.map(function(e){return[e,t]})}}function Vn(t){return t.source}function Un(t){return t.target}t.geo.path=function(){var e,r,n,i,a,o=4.5;function s(e){return e&&(\\\"function\\\"==typeof o&&i.pointRadius(+o.apply(this,arguments)),a&&a.valid||(a=n(i)),t.geo.stream(e,a)),i.result()}function l(){return a=null,s}return s.area=function(e){return sn=0,t.geo.stream(e,n(pn)),sn},s.centroid=function(e){return xr=br=_r=wr=kr=Tr=Ar=Mr=Sr=0,t.geo.stream(e,n(xn)),Sr?[Ar/Sr,Mr/Sr]:Tr?[wr/Tr,kr/Tr]:_r?[xr/_r,br/_r]:[NaN,NaN]},s.bounds=function(e){return fn=hn=-(cn=un=1/0),t.geo.stream(e,n(gn)),[[cn,un],[fn,hn]]},s.projection=function(t){return arguments.length?(n=(e=t)?t.stream||(r=t,i=An(function(t,e){return r([t*Lt,e*Lt])}),function(t){return Ln(i(t))}):z,l()):e;var r,i},s.context=function(t){return arguments.length?(i=null==(r=t)?new vn:new Tn(t),\\\"function\\\"!=typeof o&&i.pointRadius(o),l()):r},s.pointRadius=function(t){return arguments.length?(o=\\\"function\\\"==typeof t?t:(i.pointRadius(+t),+t),s):o},s.projection(t.geo.albersUsa()).context(null)},t.geo.transform=function(t){return{stream:function(e){var r=new Mn(e);for(var n in t)r[n]=t[n];return r}}},Mn.prototype={point:function(t,e){this.stream.point(t,e)},sphere:function(){this.stream.sphere()},lineStart:function(){this.stream.lineStart()},lineEnd:function(){this.stream.lineEnd()},polygonStart:function(){this.stream.polygonStart()},polygonEnd:function(){this.stream.polygonEnd()}},t.geo.projection=En,t.geo.projectionMutator=Cn,(t.geo.equirectangular=function(){return En(zn)}).raw=zn.invert=zn,t.geo.rotation=function(t){function e(e){return(e=t(e[0]*Ct,e[1]*Ct))[0]*=Lt,e[1]*=Lt,e}return t=In(t[0]%360*Ct,t[1]*Ct,t.length>2?t[2]*Ct:0),e.invert=function(e){return(e=t.invert(e[0]*Ct,e[1]*Ct))[0]*=Lt,e[1]*=Lt,e},e},On.invert=zn,t.geo.circle=function(){var t,e,r=[0,0],n=6;function i(){var t=\\\"function\\\"==typeof r?r.apply(this,arguments):r,n=In(-t[0]*Ct,-t[1]*Ct,0).invert,i=[];return e(null,null,1,{point:function(t,e){i.push(t=n(t,e)),t[0]*=Lt,t[1]*=Lt}}),{type:\\\"Polygon\\\",coordinates:[i]}}return i.origin=function(t){return arguments.length?(r=t,i):r},i.angle=function(r){return arguments.length?(e=Fn((t=+r)*Ct,n*Ct),i):t},i.precision=function(r){return arguments.length?(e=Fn(t*Ct,(n=+r)*Ct),i):n},i.angle(90)},t.geo.distance=function(t,e){var r,n=(e[0]-t[0])*Ct,i=t[1]*Ct,a=e[1]*Ct,o=Math.sin(n),s=Math.cos(n),l=Math.sin(i),c=Math.cos(i),u=Math.sin(a),f=Math.cos(a);return Math.atan2(Math.sqrt((r=f*o)*r+(r=c*u-l*f*s)*r),l*u+c*f*s)},t.geo.graticule=function(){var e,r,n,i,a,o,s,l,c,u,f,h,p=10,d=p,g=90,v=360,m=2.5;function x(){return{type:\\\"MultiLineString\\\",coordinates:b()}}function b(){return t.range(Math.ceil(i/g)*g,n,g).map(f).concat(t.range(Math.ceil(l/v)*v,s,v).map(h)).concat(t.range(Math.ceil(r/p)*p,e,p).filter(function(t){return y(t%g)>kt}).map(c)).concat(t.range(Math.ceil(o/d)*d,a,d).filter(function(t){return y(t%v)>kt}).map(u))}return x.lines=function(){return b().map(function(t){return{type:\\\"LineString\\\",coordinates:t}})},x.outline=function(){return{type:\\\"Polygon\\\",coordinates:[f(i).concat(h(s).slice(1),f(n).reverse().slice(1),h(l).reverse().slice(1))]}},x.extent=function(t){return arguments.length?x.majorExtent(t).minorExtent(t):x.minorExtent()},x.majorExtent=function(t){return arguments.length?(i=+t[0][0],n=+t[1][0],l=+t[0][1],s=+t[1][1],i>n&&(t=i,i=n,n=t),l>s&&(t=l,l=s,s=t),x.precision(m)):[[i,l],[n,s]]},x.minorExtent=function(t){return arguments.length?(r=+t[0][0],e=+t[1][0],o=+t[0][1],a=+t[1][1],r>e&&(t=r,r=e,e=t),o>a&&(t=o,o=a,a=t),x.precision(m)):[[r,o],[e,a]]},x.step=function(t){return arguments.length?x.majorStep(t).minorStep(t):x.minorStep()},x.majorStep=function(t){return arguments.length?(g=+t[0],v=+t[1],x):[g,v]},x.minorStep=function(t){return arguments.length?(p=+t[0],d=+t[1],x):[p,d]},x.precision=function(t){return arguments.length?(m=+t,c=Nn(o,a,90),u=jn(r,e,m),f=Nn(l,s,90),h=jn(i,n,m),x):m},x.majorExtent([[-180,-90+kt],[180,90-kt]]).minorExtent([[-180,-80-kt],[180,80+kt]])},t.geo.greatArc=function(){var e,r,n=Vn,i=Un;function a(){return{type:\\\"LineString\\\",coordinates:[e||n.apply(this,arguments),r||i.apply(this,arguments)]}}return a.distance=function(){return t.geo.distance(e||n.apply(this,arguments),r||i.apply(this,arguments))},a.source=function(t){return arguments.length?(n=t,e=\\\"function\\\"==typeof t?null:t,a):n},a.target=function(t){return arguments.length?(i=t,r=\\\"function\\\"==typeof t?null:t,a):i},a.precision=function(){return arguments.length?a:0},a},t.geo.interpolate=function(t,e){return r=t[0]*Ct,n=t[1]*Ct,i=e[0]*Ct,a=e[1]*Ct,o=Math.cos(n),s=Math.sin(n),l=Math.cos(a),c=Math.sin(a),u=o*Math.cos(r),f=o*Math.sin(r),h=l*Math.cos(i),p=l*Math.sin(i),d=2*Math.asin(Math.sqrt(Rt(a-n)+o*l*Rt(i-r))),g=1/Math.sin(d),(v=d?function(t){var e=Math.sin(t*=d)*g,r=Math.sin(d-t)*g,n=r*u+e*h,i=r*f+e*p,a=r*s+e*c;return[Math.atan2(i,n)*Lt,Math.atan2(a,Math.sqrt(n*n+i*i))*Lt]}:function(){return[r*Lt,n*Lt]}).distance=d,v;var r,n,i,a,o,s,l,c,u,f,h,p,d,g,v},t.geo.length=function(e){return yn=0,t.geo.stream(e,Hn),yn};var Hn={sphere:P,point:P,lineStart:function(){var t,e,r;function n(n,i){var a=Math.sin(i*=Ct),o=Math.cos(i),s=y((n*=Ct)-t),l=Math.cos(s);yn+=Math.atan2(Math.sqrt((s=o*Math.sin(s))*s+(s=r*a-e*o*l)*s),e*a+r*o*l),t=n,e=a,r=o}Hn.point=function(i,a){t=i*Ct,e=Math.sin(a*=Ct),r=Math.cos(a),Hn.point=n},Hn.lineEnd=function(){Hn.point=Hn.lineEnd=P}},lineEnd:P,polygonStart:P,polygonEnd:P};function qn(t,e){function r(e,r){var n=Math.cos(e),i=Math.cos(r),a=t(n*i);return[a*i*Math.sin(e),a*Math.sin(r)]}return r.invert=function(t,r){var n=Math.sqrt(t*t+r*r),i=e(n),a=Math.sin(i),o=Math.cos(i);return[Math.atan2(t*a,n*o),Math.asin(n&&r*a/n)]},r}var Gn=qn(function(t){return Math.sqrt(2/(1+t))},function(t){return 2*Math.asin(t/2)});(t.geo.azimuthalEqualArea=function(){return En(Gn)}).raw=Gn;var Yn=qn(function(t){var e=Math.acos(t);return e&&e/Math.sin(e)},z);function Wn(t,e){var r=Math.cos(t),n=function(t){return Math.tan(At/4+t/2)},i=t===e?Math.sin(t):Math.log(r/Math.cos(e))/Math.log(n(e)/n(t)),a=r*Math.pow(n(t),i)/i;if(!i)return $n;function o(t,e){a>0?e<-Et+kt&&(e=-Et+kt):e>Et-kt&&(e=Et-kt);var r=a/Math.pow(n(e),i);return[r*Math.sin(i*t),a-r*Math.cos(i*t)]}return o.invert=function(t,e){var r=a-e,n=zt(i)*Math.sqrt(t*t+r*r);return[Math.atan2(t,r)/i,2*Math.atan(Math.pow(a/n,1/i))-Et]},o}function Xn(t,e){var r=Math.cos(t),n=t===e?Math.sin(t):(r-Math.cos(e))/(e-t),i=r/n+t;if(y(n)<kt)return zn;function a(t,e){var r=i-e;return[r*Math.sin(n*t),i-r*Math.cos(n*t)]}return a.invert=function(t,e){var r=i-e;return[Math.atan2(t,r)/n,i-zt(n)*Math.sqrt(t*t+r*r)]},a}(t.geo.azimuthalEquidistant=function(){return En(Yn)}).raw=Yn,(t.geo.conicConformal=function(){return an(Wn)}).raw=Wn,(t.geo.conicEquidistant=function(){return an(Xn)}).raw=Xn;var Zn=qn(function(t){return 1/t},Math.atan);function $n(t,e){return[t,Math.log(Math.tan(At/4+e/2))]}function Jn(t){var e,r=En(t),n=r.scale,i=r.translate,a=r.clipExtent;return r.scale=function(){var t=n.apply(r,arguments);return t===r?e?r.clipExtent(null):r:t},r.translate=function(){var t=i.apply(r,arguments);return t===r?e?r.clipExtent(null):r:t},r.clipExtent=function(t){var o=a.apply(r,arguments);if(o===r){if(e=null==t){var s=At*n(),l=i();a([[l[0]-s,l[1]-s],[l[0]+s,l[1]+s]])}}else e&&(o=null);return o},r.clipExtent(null)}(t.geo.gnomonic=function(){return En(Zn)}).raw=Zn,$n.invert=function(t,e){return[t,2*Math.atan(Math.exp(e))-Et]},(t.geo.mercator=function(){return Jn($n)}).raw=$n;var Kn=qn(function(){return 1},Math.asin);(t.geo.orthographic=function(){return En(Kn)}).raw=Kn;var Qn=qn(function(t){return 1/(1+t)},function(t){return 2*Math.atan(t)});function ti(t,e){return[Math.log(Math.tan(At/4+e/2)),-t]}function ei(t){return t[0]}function ri(t){return t[1]}function ni(t){for(var e=t.length,r=[0,1],n=2,i=2;i<e;i++){for(;n>1&&Ot(t[r[n-2]],t[r[n-1]],t[i])<=0;)--n;r[n++]=i}return r.slice(0,n)}function ii(t,e){return t[0]-e[0]||t[1]-e[1]}(t.geo.stereographic=function(){return En(Qn)}).raw=Qn,ti.invert=function(t,e){return[-e,2*Math.atan(Math.exp(t))-Et]},(t.geo.transverseMercator=function(){var t=Jn(ti),e=t.center,r=t.rotate;return t.center=function(t){return t?e([-t[1],t[0]]):[(t=e())[1],-t[0]]},t.rotate=function(t){return t?r([t[0],t[1],t.length>2?t[2]+90:90]):[(t=r())[0],t[1],t[2]-90]},r([0,0,90])}).raw=ti,t.geom={},t.geom.hull=function(t){var e=ei,r=ri;if(arguments.length)return n(t);function n(t){if(t.length<3)return[];var n,i=ve(e),a=ve(r),o=t.length,s=[],l=[];for(n=0;n<o;n++)s.push([+i.call(this,t[n],n),+a.call(this,t[n],n),n]);for(s.sort(ii),n=0;n<o;n++)l.push([s[n][0],-s[n][1]]);var c=ni(s),u=ni(l),f=u[0]===c[0],h=u[u.length-1]===c[c.length-1],p=[];for(n=c.length-1;n>=0;--n)p.push(t[s[c[n]][2]]);for(n=+f;n<u.length-h;++n)p.push(t[s[u[n]][2]]);return p}return n.x=function(t){return arguments.length?(e=t,n):e},n.y=function(t){return arguments.length?(r=t,n):r},n},t.geom.polygon=function(t){return U(t,ai),t};var ai=t.geom.polygon.prototype=[];function oi(t,e,r){return(r[0]-e[0])*(t[1]-e[1])<(r[1]-e[1])*(t[0]-e[0])}function si(t,e,r,n){var i=t[0],a=r[0],o=e[0]-i,s=n[0]-a,l=t[1],c=r[1],u=e[1]-l,f=n[1]-c,h=(s*(l-c)-f*(i-a))/(f*o-s*u);return[i+h*o,l+h*u]}function li(t){var e=t[0],r=t[t.length-1];return!(e[0]-r[0]||e[1]-r[1])}ai.area=function(){for(var t,e=-1,r=this.length,n=this[r-1],i=0;++e<r;)t=n,n=this[e],i+=t[1]*n[0]-t[0]*n[1];return.5*i},ai.centroid=function(t){var e,r,n=-1,i=this.length,a=0,o=0,s=this[i-1];for(arguments.length||(t=-1/(6*this.area()));++n<i;)e=s,s=this[n],r=e[0]*s[1]-s[0]*e[1],a+=(e[0]+s[0])*r,o+=(e[1]+s[1])*r;return[a*t,o*t]},ai.clip=function(t){for(var e,r,n,i,a,o,s=li(t),l=-1,c=this.length-li(this),u=this[c-1];++l<c;){for(e=t.slice(),t.length=0,i=this[l],a=e[(n=e.length-s)-1],r=-1;++r<n;)oi(o=e[r],u,i)?(oi(a,u,i)||t.push(si(a,o,u,i)),t.push(o)):oi(a,u,i)&&t.push(si(a,o,u,i)),a=o;s&&t.push(t[0]),u=i}return t};var ci,ui,fi,hi,pi,di=[],gi=[];function vi(){Di(this),this.edge=this.site=this.circle=null}function mi(t){var e=di.pop()||new vi;return e.site=t,e}function yi(t){Si(t),fi.remove(t),di.push(t),Di(t)}function xi(t){var e=t.circle,r=e.x,n=e.cy,i={x:r,y:n},a=t.P,o=t.N,s=[t];yi(t);for(var l=a;l.circle&&y(r-l.circle.x)<kt&&y(n-l.circle.cy)<kt;)a=l.P,s.unshift(l),yi(l),l=a;s.unshift(l),Si(l);for(var c=o;c.circle&&y(r-c.circle.x)<kt&&y(n-c.circle.cy)<kt;)o=c.N,s.push(c),yi(c),c=o;s.push(c),Si(c);var u,f=s.length;for(u=1;u<f;++u)c=s[u],l=s[u-1],zi(c.edge,l.site,c.site,i);l=s[0],(c=s[f-1]).edge=Li(l.site,c.site,null,i),Mi(l),Mi(c)}function bi(t){for(var e,r,n,i,a=t.x,o=t.y,s=fi._;s;)if((n=_i(s,o)-a)>kt)s=s.L;else{if(!((i=a-wi(s,o))>kt)){n>-kt?(e=s.P,r=s):i>-kt?(e=s,r=s.N):e=r=s;break}if(!s.R){e=s;break}s=s.R}var l=mi(t);if(fi.insert(e,l),e||r){if(e===r)return Si(e),r=mi(e.site),fi.insert(l,r),l.edge=r.edge=Li(e.site,l.site),Mi(e),void Mi(r);if(r){Si(e),Si(r);var c=e.site,u=c.x,f=c.y,h=t.x-u,p=t.y-f,d=r.site,g=d.x-u,v=d.y-f,m=2*(h*v-p*g),y=h*h+p*p,x=g*g+v*v,b={x:(v*y-p*x)/m+u,y:(h*x-g*y)/m+f};zi(r.edge,c,d,b),l.edge=Li(c,t,null,b),r.edge=Li(t,d,null,b),Mi(e),Mi(r)}else l.edge=Li(e.site,l.site)}}function _i(t,e){var r=t.site,n=r.x,i=r.y,a=i-e;if(!a)return n;var o=t.P;if(!o)return-1/0;var s=(r=o.site).x,l=r.y,c=l-e;if(!c)return s;var u=s-n,f=1/a-1/c,h=u/c;return f?(-h+Math.sqrt(h*h-2*f*(u*u/(-2*c)-l+c/2+i-a/2)))/f+n:(n+s)/2}function wi(t,e){var r=t.N;if(r)return _i(r,e);var n=t.site;return n.y===e?n.x:1/0}function ki(t){this.site=t,this.edges=[]}function Ti(t,e){return e.angle-t.angle}function Ai(){Di(this),this.x=this.y=this.arc=this.site=this.cy=null}function Mi(t){var e=t.P,r=t.N;if(e&&r){var n=e.site,i=t.site,a=r.site;if(n!==a){var o=i.x,s=i.y,l=n.x-o,c=n.y-s,u=a.x-o,f=2*(l*(v=a.y-s)-c*u);if(!(f>=-Tt)){var h=l*l+c*c,p=u*u+v*v,d=(v*h-c*p)/f,g=(l*p-u*h)/f,v=g+s,m=gi.pop()||new Ai;m.arc=t,m.site=i,m.x=d+o,m.y=v+Math.sqrt(d*d+g*g),m.cy=v,t.circle=m;for(var y=null,x=pi._;x;)if(m.y<x.y||m.y===x.y&&m.x<=x.x){if(!x.L){y=x.P;break}x=x.L}else{if(!x.R){y=x;break}x=x.R}pi.insert(y,m),y||(hi=m)}}}}function Si(t){var e=t.circle;e&&(e.P||(hi=e.N),pi.remove(e),gi.push(e),Di(e),t.circle=null)}function Ei(t,e){var r=t.b;if(r)return!0;var n,i,a=t.a,o=e[0][0],s=e[1][0],l=e[0][1],c=e[1][1],u=t.l,f=t.r,h=u.x,p=u.y,d=f.x,g=f.y,v=(h+d)/2,m=(p+g)/2;if(g===p){if(v<o||v>=s)return;if(h>d){if(a){if(a.y>=c)return}else a={x:v,y:l};r={x:v,y:c}}else{if(a){if(a.y<l)return}else a={x:v,y:c};r={x:v,y:l}}}else if(i=m-(n=(h-d)/(g-p))*v,n<-1||n>1)if(h>d){if(a){if(a.y>=c)return}else a={x:(l-i)/n,y:l};r={x:(c-i)/n,y:c}}else{if(a){if(a.y<l)return}else a={x:(c-i)/n,y:c};r={x:(l-i)/n,y:l}}else if(p<g){if(a){if(a.x>=s)return}else a={x:o,y:n*o+i};r={x:s,y:n*s+i}}else{if(a){if(a.x<o)return}else a={x:s,y:n*s+i};r={x:o,y:n*o+i}}return t.a=a,t.b=r,!0}function Ci(t,e){this.l=t,this.r=e,this.a=this.b=null}function Li(t,e,r,n){var i=new Ci(t,e);return ci.push(i),r&&zi(i,t,e,r),n&&zi(i,e,t,n),ui[t.i].edges.push(new Oi(i,t,e)),ui[e.i].edges.push(new Oi(i,e,t)),i}function zi(t,e,r,n){t.a||t.b?t.l===r?t.b=n:t.a=n:(t.a=n,t.l=e,t.r=r)}function Oi(t,e,r){var n=t.a,i=t.b;this.edge=t,this.site=e,this.angle=r?Math.atan2(r.y-e.y,r.x-e.x):t.l===e?Math.atan2(i.x-n.x,n.y-i.y):Math.atan2(n.x-i.x,i.y-n.y)}function Ii(){this._=null}function Di(t){t.U=t.C=t.L=t.R=t.P=t.N=null}function Pi(t,e){var r=e,n=e.R,i=r.U;i?i.L===r?i.L=n:i.R=n:t._=n,n.U=i,r.U=n,r.R=n.L,r.R&&(r.R.U=r),n.L=r}function Ri(t,e){var r=e,n=e.L,i=r.U;i?i.L===r?i.L=n:i.R=n:t._=n,n.U=i,r.U=n,r.L=n.R,r.L&&(r.L.U=r),n.R=r}function Fi(t){for(;t.L;)t=t.L;return t}function Bi(t,e){var r,n,i,a=t.sort(Ni).pop();for(ci=[],ui=new Array(t.length),fi=new Ii,pi=new Ii;;)if(i=hi,a&&(!i||a.y<i.y||a.y===i.y&&a.x<i.x))a.x===r&&a.y===n||(ui[a.i]=new ki(a),bi(a),r=a.x,n=a.y),a=t.pop();else{if(!i)break;xi(i.arc)}e&&(function(t){for(var e,r=ci,n=en(t[0][0],t[0][1],t[1][0],t[1][1]),i=r.length;i--;)(!Ei(e=r[i],t)||!n(e)||y(e.a.x-e.b.x)<kt&&y(e.a.y-e.b.y)<kt)&&(e.a=e.b=null,r.splice(i,1))}(e),function(t){for(var e,r,n,i,a,o,s,l,c,u,f=t[0][0],h=t[1][0],p=t[0][1],d=t[1][1],g=ui,v=g.length;v--;)if((a=g[v])&&a.prepare())for(l=(s=a.edges).length,o=0;o<l;)n=(u=s[o].end()).x,i=u.y,e=(c=s[++o%l].start()).x,r=c.y,(y(n-e)>kt||y(i-r)>kt)&&(s.splice(o,0,new Oi((m=a.site,x=u,b=y(n-f)<kt&&d-i>kt?{x:f,y:y(e-f)<kt?r:d}:y(i-d)<kt&&h-n>kt?{x:y(r-d)<kt?e:h,y:d}:y(n-h)<kt&&i-p>kt?{x:h,y:y(e-h)<kt?r:p}:y(i-p)<kt&&n-f>kt?{x:y(r-p)<kt?e:f,y:p}:null,_=void 0,_=new Ci(m,null),_.a=x,_.b=b,ci.push(_),_),a.site,null)),++l);var m,x,b,_}(e));var o={cells:ui,edges:ci};return fi=pi=ci=ui=null,o}function Ni(t,e){return e.y-t.y||e.x-t.x}ki.prototype.prepare=function(){for(var t,e=this.edges,r=e.length;r--;)(t=e[r].edge).b&&t.a||e.splice(r,1);return e.sort(Ti),e.length},Oi.prototype={start:function(){return this.edge.l===this.site?this.edge.a:this.edge.b},end:function(){return this.edge.l===this.site?this.edge.b:this.edge.a}},Ii.prototype={insert:function(t,e){var r,n,i;if(t){if(e.P=t,e.N=t.N,t.N&&(t.N.P=e),t.N=e,t.R){for(t=t.R;t.L;)t=t.L;t.L=e}else t.R=e;r=t}else this._?(t=Fi(this._),e.P=null,e.N=t,t.P=t.L=e,r=t):(e.P=e.N=null,this._=e,r=null);for(e.L=e.R=null,e.U=r,e.C=!0,t=e;r&&r.C;)r===(n=r.U).L?(i=n.R)&&i.C?(r.C=i.C=!1,n.C=!0,t=n):(t===r.R&&(Pi(this,r),r=(t=r).U),r.C=!1,n.C=!0,Ri(this,n)):(i=n.L)&&i.C?(r.C=i.C=!1,n.C=!0,t=n):(t===r.L&&(Ri(this,r),r=(t=r).U),r.C=!1,n.C=!0,Pi(this,n)),r=t.U;this._.C=!1},remove:function(t){t.N&&(t.N.P=t.P),t.P&&(t.P.N=t.N),t.N=t.P=null;var e,r,n,i=t.U,a=t.L,o=t.R;if(r=a?o?Fi(o):a:o,i?i.L===t?i.L=r:i.R=r:this._=r,a&&o?(n=r.C,r.C=t.C,r.L=a,a.U=r,r!==o?(i=r.U,r.U=t.U,t=r.R,i.L=t,r.R=o,o.U=r):(r.U=i,i=r,t=r.R)):(n=t.C,t=r),t&&(t.U=i),!n)if(t&&t.C)t.C=!1;else{do{if(t===this._)break;if(t===i.L){if((e=i.R).C&&(e.C=!1,i.C=!0,Pi(this,i),e=i.R),e.L&&e.L.C||e.R&&e.R.C){e.R&&e.R.C||(e.L.C=!1,e.C=!0,Ri(this,e),e=i.R),e.C=i.C,i.C=e.R.C=!1,Pi(this,i),t=this._;break}}else if((e=i.L).C&&(e.C=!1,i.C=!0,Ri(this,i),e=i.L),e.L&&e.L.C||e.R&&e.R.C){e.L&&e.L.C||(e.R.C=!1,e.C=!0,Pi(this,e),e=i.L),e.C=i.C,i.C=e.L.C=!1,Ri(this,i),t=this._;break}e.C=!0,t=i,i=i.U}while(!t.C);t&&(t.C=!1)}}},t.geom.voronoi=function(t){var e=ei,r=ri,n=e,i=r,a=ji;if(t)return o(t);function o(t){var e=new Array(t.length),r=a[0][0],n=a[0][1],i=a[1][0],o=a[1][1];return Bi(s(t),a).cells.forEach(function(a,s){var l=a.edges,c=a.site;(e[s]=l.length?l.map(function(t){var e=t.start();return[e.x,e.y]}):c.x>=r&&c.x<=i&&c.y>=n&&c.y<=o?[[r,o],[i,o],[i,n],[r,n]]:[]).point=t[s]}),e}function s(t){return t.map(function(t,e){return{x:Math.round(n(t,e)/kt)*kt,y:Math.round(i(t,e)/kt)*kt,i:e}})}return o.links=function(t){return Bi(s(t)).edges.filter(function(t){return t.l&&t.r}).map(function(e){return{source:t[e.l.i],target:t[e.r.i]}})},o.triangles=function(t){var e=[];return Bi(s(t)).cells.forEach(function(r,n){for(var i,a,o,s,l=r.site,c=r.edges.sort(Ti),u=-1,f=c.length,h=c[f-1].edge,p=h.l===l?h.r:h.l;++u<f;)h,i=p,p=(h=c[u].edge).l===l?h.r:h.l,n<i.i&&n<p.i&&(o=i,s=p,((a=l).x-s.x)*(o.y-a.y)-(a.x-o.x)*(s.y-a.y)<0)&&e.push([t[n],t[i.i],t[p.i]])}),e},o.x=function(t){return arguments.length?(n=ve(e=t),o):e},o.y=function(t){return arguments.length?(i=ve(r=t),o):r},o.clipExtent=function(t){return arguments.length?(a=null==t?ji:t,o):a===ji?null:a},o.size=function(t){return arguments.length?o.clipExtent(t&&[[0,0],t]):a===ji?null:a&&a[1]},o};var ji=[[-1e6,-1e6],[1e6,1e6]];function Vi(t){return t.x}function Ui(t){return t.y}function Hi(e,r){e=t.rgb(e),r=t.rgb(r);var n=e.r,i=e.g,a=e.b,o=r.r-n,s=r.g-i,l=r.b-a;return function(t){return\\\"#\\\"+ce(Math.round(n+o*t))+ce(Math.round(i+s*t))+ce(Math.round(a+l*t))}}function qi(t,e){var r,n={},i={};for(r in t)r in e?n[r]=Zi(t[r],e[r]):i[r]=t[r];for(r in e)r in t||(i[r]=e[r]);return function(t){for(r in n)i[r]=n[r](t);return i}}function Gi(t,e){return t=+t,e=+e,function(r){return t*(1-r)+e*r}}function Yi(t,e){var r,n,i,a=Wi.lastIndex=Xi.lastIndex=0,o=-1,s=[],l=[];for(t+=\\\"\\\",e+=\\\"\\\";(r=Wi.exec(t))&&(n=Xi.exec(e));)(i=n.index)>a&&(i=e.slice(a,i),s[o]?s[o]+=i:s[++o]=i),(r=r[0])===(n=n[0])?s[o]?s[o]+=n:s[++o]=n:(s[++o]=null,l.push({i:o,x:Gi(r,n)})),a=Xi.lastIndex;return a<e.length&&(i=e.slice(a),s[o]?s[o]+=i:s[++o]=i),s.length<2?l[0]?(e=l[0].x,function(t){return e(t)+\\\"\\\"}):function(){return e}:(e=l.length,function(t){for(var r,n=0;n<e;++n)s[(r=l[n]).i]=r.x(t);return s.join(\\\"\\\")})}t.geom.delaunay=function(e){return t.geom.voronoi().triangles(e)},t.geom.quadtree=function(t,e,r,n,i){var a,o=ei,s=ri;if(a=arguments.length)return o=Vi,s=Ui,3===a&&(i=r,n=e,r=e=0),l(t);function l(t){var l,c,u,f,h,p,d,g,v,m=ve(o),x=ve(s);if(null!=e)p=e,d=r,g=n,v=i;else if(g=v=-(p=d=1/0),c=[],u=[],h=t.length,a)for(f=0;f<h;++f)(l=t[f]).x<p&&(p=l.x),l.y<d&&(d=l.y),l.x>g&&(g=l.x),l.y>v&&(v=l.y),c.push(l.x),u.push(l.y);else for(f=0;f<h;++f){var b=+m(l=t[f],f),_=+x(l,f);b<p&&(p=b),_<d&&(d=_),b>g&&(g=b),_>v&&(v=_),c.push(b),u.push(_)}var w=g-p,k=v-d;function T(t,e,r,n,i,a,o,s){if(!isNaN(r)&&!isNaN(n))if(t.leaf){var l=t.x,c=t.y;if(null!=l)if(y(l-r)+y(c-n)<.01)A(t,e,r,n,i,a,o,s);else{var u=t.point;t.x=t.y=t.point=null,A(t,u,l,c,i,a,o,s),A(t,e,r,n,i,a,o,s)}else t.x=r,t.y=n,t.point=e}else A(t,e,r,n,i,a,o,s)}function A(t,e,r,n,i,a,o,s){var l=.5*(i+o),c=.5*(a+s),u=r>=l,f=n>=c,h=f<<1|u;t.leaf=!1,u?i=l:o=l,f?a=c:s=c,T(t=t.nodes[h]||(t.nodes[h]={leaf:!0,nodes:[],point:null,x:null,y:null,add:function(t){T(M,t,+m(t,++f),+x(t,f),p,d,g,v)}}),e,r,n,i,a,o,s)}w>k?v=d+w:g=p+k;var M={leaf:!0,nodes:[],point:null,x:null,y:null,add:function(t){T(M,t,+m(t,++f),+x(t,f),p,d,g,v)}};if(M.visit=function(t){!function t(e,r,n,i,a,o){if(!e(r,n,i,a,o)){var s=.5*(n+a),l=.5*(i+o),c=r.nodes;c[0]&&t(e,c[0],n,i,s,l),c[1]&&t(e,c[1],s,i,a,l),c[2]&&t(e,c[2],n,l,s,o),c[3]&&t(e,c[3],s,l,a,o)}}(t,M,p,d,g,v)},M.find=function(t){return function(t,e,r,n,i,a,o){var s,l=1/0;return function t(c,u,f,h,p){if(!(u>a||f>o||h<n||p<i)){if(d=c.point){var d,g=e-c.x,v=r-c.y,m=g*g+v*v;if(m<l){var y=Math.sqrt(l=m);n=e-y,i=r-y,a=e+y,o=r+y,s=d}}for(var x=c.nodes,b=.5*(u+h),_=.5*(f+p),w=(r>=_)<<1|e>=b,k=w+4;w<k;++w)if(c=x[3&w])switch(3&w){case 0:t(c,u,f,b,_);break;case 1:t(c,b,f,h,_);break;case 2:t(c,u,_,b,p);break;case 3:t(c,b,_,h,p)}}}(t,n,i,a,o),s}(M,t[0],t[1],p,d,g,v)},f=-1,null==e){for(;++f<h;)T(M,t[f],c[f],u[f],p,d,g,v);--f}else t.forEach(M.add);return c=u=t=l=null,M}return l.x=function(t){return arguments.length?(o=t,l):o},l.y=function(t){return arguments.length?(s=t,l):s},l.extent=function(t){return arguments.length?(null==t?e=r=n=i=null:(e=+t[0][0],r=+t[0][1],n=+t[1][0],i=+t[1][1]),l):null==e?null:[[e,r],[n,i]]},l.size=function(t){return arguments.length?(null==t?e=r=n=i=null:(e=r=0,n=+t[0],i=+t[1]),l):null==e?null:[n-e,i-r]},l},t.interpolateRgb=Hi,t.interpolateObject=qi,t.interpolateNumber=Gi,t.interpolateString=Yi;var Wi=/[-+]?(?:\\\\d+\\\\.?\\\\d*|\\\\.?\\\\d+)(?:[eE][-+]?\\\\d+)?/g,Xi=new RegExp(Wi.source,\\\"g\\\");function Zi(e,r){for(var n,i=t.interpolators.length;--i>=0&&!(n=t.interpolators[i](e,r)););return n}function $i(t,e){var r,n=[],i=[],a=t.length,o=e.length,s=Math.min(t.length,e.length);for(r=0;r<s;++r)n.push(Zi(t[r],e[r]));for(;r<a;++r)i[r]=t[r];for(;r<o;++r)i[r]=e[r];return function(t){for(r=0;r<s;++r)i[r]=n[r](t);return i}}t.interpolate=Zi,t.interpolators=[function(t,e){var r=typeof e;return(\\\"string\\\"===r?ge.has(e.toLowerCase())||/^(#|rgb\\\\(|hsl\\\\()/i.test(e)?Hi:Yi:e instanceof Vt?Hi:Array.isArray(e)?$i:\\\"object\\\"===r&&isNaN(e)?qi:Gi)(t,e)}],t.interpolateArray=$i;var Ji=function(){return z},Ki=t.map({linear:Ji,poly:function(t){return function(e){return Math.pow(e,t)}},quad:function(){return ra},cubic:function(){return na},sin:function(){return aa},exp:function(){return oa},circle:function(){return sa},elastic:function(t,e){var r;arguments.length<2&&(e=.45);arguments.length?r=e/Mt*Math.asin(1/t):(t=1,r=e/4);return function(n){return 1+t*Math.pow(2,-10*n)*Math.sin((n-r)*Mt/e)}},back:function(t){t||(t=1.70158);return function(e){return e*e*((t+1)*e-t)}},bounce:function(){return la}}),Qi=t.map({in:z,out:ta,\\\"in-out\\\":ea,\\\"out-in\\\":function(t){return ea(ta(t))}});function ta(t){return function(e){return 1-t(1-e)}}function ea(t){return function(e){return.5*(e<.5?t(2*e):2-t(2-2*e))}}function ra(t){return t*t}function na(t){return t*t*t}function ia(t){if(t<=0)return 0;if(t>=1)return 1;var e=t*t,r=e*t;return 4*(t<.5?r:3*(t-e)+r-.75)}function aa(t){return 1-Math.cos(t*Et)}function oa(t){return Math.pow(2,10*(t-1))}function sa(t){return 1-Math.sqrt(1-t*t)}function la(t){return t<1/2.75?7.5625*t*t:t<2/2.75?7.5625*(t-=1.5/2.75)*t+.75:t<2.5/2.75?7.5625*(t-=2.25/2.75)*t+.9375:7.5625*(t-=2.625/2.75)*t+.984375}function ca(t,e){return e-=t,function(r){return Math.round(t+e*r)}}function ua(t){var e,r,n,i=[t.a,t.b],a=[t.c,t.d],o=ha(i),s=fa(i,a),l=ha(((e=a)[0]+=(n=-s)*(r=i)[0],e[1]+=n*r[1],e))||0;i[0]*a[1]<a[0]*i[1]&&(i[0]*=-1,i[1]*=-1,o*=-1,s*=-1),this.rotate=(o?Math.atan2(i[1],i[0]):Math.atan2(-a[0],a[1]))*Lt,this.translate=[t.e,t.f],this.scale=[o,l],this.skew=l?Math.atan2(s,l)*Lt:0}function fa(t,e){return t[0]*e[0]+t[1]*e[1]}function ha(t){var e=Math.sqrt(fa(t,t));return e&&(t[0]/=e,t[1]/=e),e}t.ease=function(t){var e,n=t.indexOf(\\\"-\\\"),i=n>=0?t.slice(0,n):t,a=n>=0?t.slice(n+1):\\\"in\\\";return i=Ki.get(i)||Ji,a=Qi.get(a)||z,e=a(i.apply(null,r.call(arguments,1))),function(t){return t<=0?0:t>=1?1:e(t)}},t.interpolateHcl=function(e,r){e=t.hcl(e),r=t.hcl(r);var n=e.h,i=e.c,a=e.l,o=r.h-n,s=r.c-i,l=r.l-a;isNaN(s)&&(s=0,i=isNaN(i)?r.c:i);isNaN(o)?(o=0,n=isNaN(n)?r.h:n):o>180?o-=360:o<-180&&(o+=360);return function(t){return Wt(n+o*t,i+s*t,a+l*t)+\\\"\\\"}},t.interpolateHsl=function(e,r){e=t.hsl(e),r=t.hsl(r);var n=e.h,i=e.s,a=e.l,o=r.h-n,s=r.s-i,l=r.l-a;isNaN(s)&&(s=0,i=isNaN(i)?r.s:i);isNaN(o)?(o=0,n=isNaN(n)?r.h:n):o>180?o-=360:o<-180&&(o+=360);return function(t){return qt(n+o*t,i+s*t,a+l*t)+\\\"\\\"}},t.interpolateLab=function(e,r){e=t.lab(e),r=t.lab(r);var n=e.l,i=e.a,a=e.b,o=r.l-n,s=r.a-i,l=r.b-a;return function(t){return te(n+o*t,i+s*t,a+l*t)+\\\"\\\"}},t.interpolateRound=ca,t.transform=function(e){var r=i.createElementNS(t.ns.prefix.svg,\\\"g\\\");return(t.transform=function(t){if(null!=t){r.setAttribute(\\\"transform\\\",t);var e=r.transform.baseVal.consolidate()}return new ua(e?e.matrix:pa)})(e)},ua.prototype.toString=function(){return\\\"translate(\\\"+this.translate+\\\")rotate(\\\"+this.rotate+\\\")skewX(\\\"+this.skew+\\\")scale(\\\"+this.scale+\\\")\\\"};var pa={a:1,b:0,c:0,d:1,e:0,f:0};function da(t){return t.length?t.pop()+\\\",\\\":\\\"\\\"}function ga(e,r){var n=[],i=[];return e=t.transform(e),r=t.transform(r),function(t,e,r,n){if(t[0]!==e[0]||t[1]!==e[1]){var i=r.push(\\\"translate(\\\",null,\\\",\\\",null,\\\")\\\");n.push({i:i-4,x:Gi(t[0],e[0])},{i:i-2,x:Gi(t[1],e[1])})}else(e[0]||e[1])&&r.push(\\\"translate(\\\"+e+\\\")\\\")}(e.translate,r.translate,n,i),function(t,e,r,n){t!==e?(t-e>180?e+=360:e-t>180&&(t+=360),n.push({i:r.push(da(r)+\\\"rotate(\\\",null,\\\")\\\")-2,x:Gi(t,e)})):e&&r.push(da(r)+\\\"rotate(\\\"+e+\\\")\\\")}(e.rotate,r.rotate,n,i),function(t,e,r,n){t!==e?n.push({i:r.push(da(r)+\\\"skewX(\\\",null,\\\")\\\")-2,x:Gi(t,e)}):e&&r.push(da(r)+\\\"skewX(\\\"+e+\\\")\\\")}(e.skew,r.skew,n,i),function(t,e,r,n){if(t[0]!==e[0]||t[1]!==e[1]){var i=r.push(da(r)+\\\"scale(\\\",null,\\\",\\\",null,\\\")\\\");n.push({i:i-4,x:Gi(t[0],e[0])},{i:i-2,x:Gi(t[1],e[1])})}else 1===e[0]&&1===e[1]||r.push(da(r)+\\\"scale(\\\"+e+\\\")\\\")}(e.scale,r.scale,n,i),e=r=null,function(t){for(var e,r=-1,a=i.length;++r<a;)n[(e=i[r]).i]=e.x(t);return n.join(\\\"\\\")}}function va(t,e){return e=(e-=t=+t)||1/e,function(r){return(r-t)/e}}function ma(t,e){return e=(e-=t=+t)||1/e,function(r){return Math.max(0,Math.min(1,(r-t)/e))}}function ya(t){for(var e=t.source,r=t.target,n=function(t,e){if(t===e)return t;var r=xa(t),n=xa(e),i=r.pop(),a=n.pop(),o=null;for(;i===a;)o=i,i=r.pop(),a=n.pop();return o}(e,r),i=[e];e!==n;)e=e.parent,i.push(e);for(var a=i.length;r!==n;)i.splice(a,0,r),r=r.parent;return i}function xa(t){for(var e=[],r=t.parent;null!=r;)e.push(t),t=r,r=r.parent;return e.push(t),e}function ba(t){t.fixed|=2}function _a(t){t.fixed&=-7}function wa(t){t.fixed|=4,t.px=t.x,t.py=t.y}function ka(t){t.fixed&=-5}t.interpolateTransform=ga,t.layout={},t.layout.bundle=function(){return function(t){for(var e=[],r=-1,n=t.length;++r<n;)e.push(ya(t[r]));return e}},t.layout.chord=function(){var e,r,n,i,a,o,s,l={},c=0;function u(){var l,u,h,p,d,g={},v=[],m=t.range(i),y=[];for(e=[],r=[],l=0,p=-1;++p<i;){for(u=0,d=-1;++d<i;)u+=n[p][d];v.push(u),y.push(t.range(i)),l+=u}for(a&&m.sort(function(t,e){return a(v[t],v[e])}),o&&y.forEach(function(t,e){t.sort(function(t,r){return o(n[e][t],n[e][r])})}),l=(Mt-c*i)/l,u=0,p=-1;++p<i;){for(h=u,d=-1;++d<i;){var x=m[p],b=y[x][d],_=n[x][b],w=u,k=u+=_*l;g[x+\\\"-\\\"+b]={index:x,subindex:b,startAngle:w,endAngle:k,value:_}}r[x]={index:x,startAngle:h,endAngle:u,value:v[x]},u+=c}for(p=-1;++p<i;)for(d=p-1;++d<i;){var T=g[p+\\\"-\\\"+d],A=g[d+\\\"-\\\"+p];(T.value||A.value)&&e.push(T.value<A.value?{source:A,target:T}:{source:T,target:A})}s&&f()}function f(){e.sort(function(t,e){return s((t.source.value+t.target.value)/2,(e.source.value+e.target.value)/2)})}return l.matrix=function(t){return arguments.length?(i=(n=t)&&n.length,e=r=null,l):n},l.padding=function(t){return arguments.length?(c=t,e=r=null,l):c},l.sortGroups=function(t){return arguments.length?(a=t,e=r=null,l):a},l.sortSubgroups=function(t){return arguments.length?(o=t,e=null,l):o},l.sortChords=function(t){return arguments.length?(s=t,e&&f(),l):s},l.chords=function(){return e||u(),e},l.groups=function(){return r||u(),r},l},t.layout.force=function(){var e,r,n,i,a,o,s={},l=t.dispatch(\\\"start\\\",\\\"tick\\\",\\\"end\\\"),c=[1,1],u=.9,f=Ta,h=Aa,p=-30,d=Ma,g=.1,v=.64,m=[],y=[];function x(t){return function(e,r,n,i){if(e.point!==t){var a=e.cx-t.x,o=e.cy-t.y,s=i-r,l=a*a+o*o;if(s*s/v<l){if(l<d){var c=e.charge/l;t.px-=a*c,t.py-=o*c}return!0}if(e.point&&l&&l<d){c=e.pointCharge/l;t.px-=a*c,t.py-=o*c}}return!e.charge}}function b(e){e.px=t.event.x,e.py=t.event.y,s.resume()}return s.tick=function(){if((n*=.99)<.005)return e=null,l.end({type:\\\"end\\\",alpha:n=0}),!0;var r,s,f,h,d,v,b,_,w,k=m.length,T=y.length;for(s=0;s<T;++s)h=(f=y[s]).source,(v=(_=(d=f.target).x-h.x)*_+(w=d.y-h.y)*w)&&(_*=v=n*a[s]*((v=Math.sqrt(v))-i[s])/v,w*=v,d.x-=_*(b=h.weight+d.weight?h.weight/(h.weight+d.weight):.5),d.y-=w*b,h.x+=_*(b=1-b),h.y+=w*b);if((b=n*g)&&(_=c[0]/2,w=c[1]/2,s=-1,b))for(;++s<k;)(f=m[s]).x+=(_-f.x)*b,f.y+=(w-f.y)*b;if(p)for(!function t(e,r,n){var i=0,a=0;e.charge=0;if(!e.leaf)for(var o,s=e.nodes,l=s.length,c=-1;++c<l;)null!=(o=s[c])&&(t(o,r,n),e.charge+=o.charge,i+=o.charge*o.cx,a+=o.charge*o.cy);if(e.point){e.leaf||(e.point.x+=Math.random()-.5,e.point.y+=Math.random()-.5);var u=r*n[e.point.index];e.charge+=e.pointCharge=u,i+=u*e.point.x,a+=u*e.point.y}e.cx=i/e.charge;e.cy=a/e.charge}(r=t.geom.quadtree(m),n,o),s=-1;++s<k;)(f=m[s]).fixed||r.visit(x(f));for(s=-1;++s<k;)(f=m[s]).fixed?(f.x=f.px,f.y=f.py):(f.x-=(f.px-(f.px=f.x))*u,f.y-=(f.py-(f.py=f.y))*u);l.tick({type:\\\"tick\\\",alpha:n})},s.nodes=function(t){return arguments.length?(m=t,s):m},s.links=function(t){return arguments.length?(y=t,s):y},s.size=function(t){return arguments.length?(c=t,s):c},s.linkDistance=function(t){return arguments.length?(f=\\\"function\\\"==typeof t?t:+t,s):f},s.distance=s.linkDistance,s.linkStrength=function(t){return arguments.length?(h=\\\"function\\\"==typeof t?t:+t,s):h},s.friction=function(t){return arguments.length?(u=+t,s):u},s.charge=function(t){return arguments.length?(p=\\\"function\\\"==typeof t?t:+t,s):p},s.chargeDistance=function(t){return arguments.length?(d=t*t,s):Math.sqrt(d)},s.gravity=function(t){return arguments.length?(g=+t,s):g},s.theta=function(t){return arguments.length?(v=t*t,s):Math.sqrt(v)},s.alpha=function(t){return arguments.length?(t=+t,n?t>0?n=t:(e.c=null,e.t=NaN,e=null,l.end({type:\\\"end\\\",alpha:n=0})):t>0&&(l.start({type:\\\"start\\\",alpha:n=t}),e=Te(s.tick)),s):n},s.start=function(){var t,e,r,n=m.length,l=y.length,u=c[0],d=c[1];for(t=0;t<n;++t)(r=m[t]).index=t,r.weight=0;for(t=0;t<l;++t)\\\"number\\\"==typeof(r=y[t]).source&&(r.source=m[r.source]),\\\"number\\\"==typeof r.target&&(r.target=m[r.target]),++r.source.weight,++r.target.weight;for(t=0;t<n;++t)r=m[t],isNaN(r.x)&&(r.x=g(\\\"x\\\",u)),isNaN(r.y)&&(r.y=g(\\\"y\\\",d)),isNaN(r.px)&&(r.px=r.x),isNaN(r.py)&&(r.py=r.y);if(i=[],\\\"function\\\"==typeof f)for(t=0;t<l;++t)i[t]=+f.call(this,y[t],t);else for(t=0;t<l;++t)i[t]=f;if(a=[],\\\"function\\\"==typeof h)for(t=0;t<l;++t)a[t]=+h.call(this,y[t],t);else for(t=0;t<l;++t)a[t]=h;if(o=[],\\\"function\\\"==typeof p)for(t=0;t<n;++t)o[t]=+p.call(this,m[t],t);else for(t=0;t<n;++t)o[t]=p;function g(r,i){if(!e){for(e=new Array(n),c=0;c<n;++c)e[c]=[];for(c=0;c<l;++c){var a=y[c];e[a.source.index].push(a.target),e[a.target.index].push(a.source)}}for(var o,s=e[t],c=-1,u=s.length;++c<u;)if(!isNaN(o=s[c][r]))return o;return Math.random()*i}return s.resume()},s.resume=function(){return s.alpha(.1)},s.stop=function(){return s.alpha(0)},s.drag=function(){if(r||(r=t.behavior.drag().origin(z).on(\\\"dragstart.force\\\",ba).on(\\\"drag.force\\\",b).on(\\\"dragend.force\\\",_a)),!arguments.length)return r;this.on(\\\"mouseover.force\\\",wa).on(\\\"mouseout.force\\\",ka).call(r)},t.rebind(s,l,\\\"on\\\")};var Ta=20,Aa=1,Ma=1/0;function Sa(e,r){return t.rebind(e,r,\\\"sort\\\",\\\"children\\\",\\\"value\\\"),e.nodes=e,e.links=Ia,e}function Ea(t,e){for(var r=[t];null!=(t=r.pop());)if(e(t),(i=t.children)&&(n=i.length))for(var n,i;--n>=0;)r.push(i[n])}function Ca(t,e){for(var r=[t],n=[];null!=(t=r.pop());)if(n.push(t),(a=t.children)&&(i=a.length))for(var i,a,o=-1;++o<i;)r.push(a[o]);for(;null!=(t=n.pop());)e(t)}function La(t){return t.children}function za(t){return t.value}function Oa(t,e){return e.value-t.value}function Ia(e){return t.merge(e.map(function(t){return(t.children||[]).map(function(e){return{source:t,target:e}})}))}t.layout.hierarchy=function(){var t=Oa,e=La,r=za;function n(i){var a,o=[i],s=[];for(i.depth=0;null!=(a=o.pop());)if(s.push(a),(c=e.call(n,a,a.depth))&&(l=c.length)){for(var l,c,u;--l>=0;)o.push(u=c[l]),u.parent=a,u.depth=a.depth+1;r&&(a.value=0),a.children=c}else r&&(a.value=+r.call(n,a,a.depth)||0),delete a.children;return Ca(i,function(e){var n,i;t&&(n=e.children)&&n.sort(t),r&&(i=e.parent)&&(i.value+=e.value)}),s}return n.sort=function(e){return arguments.length?(t=e,n):t},n.children=function(t){return arguments.length?(e=t,n):e},n.value=function(t){return arguments.length?(r=t,n):r},n.revalue=function(t){return r&&(Ea(t,function(t){t.children&&(t.value=0)}),Ca(t,function(t){var e;t.children||(t.value=+r.call(n,t,t.depth)||0),(e=t.parent)&&(e.value+=t.value)})),t},n},t.layout.partition=function(){var e=t.layout.hierarchy(),r=[1,1];function n(t,n){var i=e.call(this,t,n);return function t(e,r,n,i){var a=e.children;if(e.x=r,e.y=e.depth*i,e.dx=n,e.dy=i,a&&(o=a.length)){var o,s,l,c=-1;for(n=e.value?n/e.value:0;++c<o;)t(s=a[c],r,l=s.value*n,i),r+=l}}(i[0],0,r[0],r[1]/function t(e){var r=e.children,n=0;if(r&&(i=r.length))for(var i,a=-1;++a<i;)n=Math.max(n,t(r[a]));return 1+n}(i[0])),i}return n.size=function(t){return arguments.length?(r=t,n):r},Sa(n,e)},t.layout.pie=function(){var e=Number,r=Da,n=0,i=Mt,a=0;function o(s){var l,c=s.length,u=s.map(function(t,r){return+e.call(o,t,r)}),f=+(\\\"function\\\"==typeof n?n.apply(this,arguments):n),h=(\\\"function\\\"==typeof i?i.apply(this,arguments):i)-f,p=Math.min(Math.abs(h)/c,+(\\\"function\\\"==typeof a?a.apply(this,arguments):a)),d=p*(h<0?-1:1),g=t.sum(u),v=g?(h-c*d)/g:0,m=t.range(c),y=[];return null!=r&&m.sort(r===Da?function(t,e){return u[e]-u[t]}:function(t,e){return r(s[t],s[e])}),m.forEach(function(t){y[t]={data:s[t],value:l=u[t],startAngle:f,endAngle:f+=l*v+d,padAngle:p}}),y}return o.value=function(t){return arguments.length?(e=t,o):e},o.sort=function(t){return arguments.length?(r=t,o):r},o.startAngle=function(t){return arguments.length?(n=t,o):n},o.endAngle=function(t){return arguments.length?(i=t,o):i},o.padAngle=function(t){return arguments.length?(a=t,o):a},o};var Da={};function Pa(t){return t.x}function Ra(t){return t.y}function Fa(t,e,r){t.y0=e,t.y=r}t.layout.stack=function(){var e=z,r=ja,n=Va,i=Fa,a=Pa,o=Ra;function s(l,c){if(!(p=l.length))return l;var u=l.map(function(t,r){return e.call(s,t,r)}),f=u.map(function(t){return t.map(function(t,e){return[a.call(s,t,e),o.call(s,t,e)]})}),h=r.call(s,f,c);u=t.permute(u,h),f=t.permute(f,h);var p,d,g,v,m=n.call(s,f,c),y=u[0].length;for(g=0;g<y;++g)for(i.call(s,u[0][g],v=m[g],f[0][g][1]),d=1;d<p;++d)i.call(s,u[d][g],v+=f[d-1][g][1],f[d][g][1]);return l}return s.values=function(t){return arguments.length?(e=t,s):e},s.order=function(t){return arguments.length?(r=\\\"function\\\"==typeof t?t:Ba.get(t)||ja,s):r},s.offset=function(t){return arguments.length?(n=\\\"function\\\"==typeof t?t:Na.get(t)||Va,s):n},s.x=function(t){return arguments.length?(a=t,s):a},s.y=function(t){return arguments.length?(o=t,s):o},s.out=function(t){return arguments.length?(i=t,s):i},s};var Ba=t.map({\\\"inside-out\\\":function(e){var r,n,i=e.length,a=e.map(Ua),o=e.map(Ha),s=t.range(i).sort(function(t,e){return a[t]-a[e]}),l=0,c=0,u=[],f=[];for(r=0;r<i;++r)n=s[r],l<c?(l+=o[n],u.push(n)):(c+=o[n],f.push(n));return f.reverse().concat(u)},reverse:function(e){return t.range(e.length).reverse()},default:ja}),Na=t.map({silhouette:function(t){var e,r,n,i=t.length,a=t[0].length,o=[],s=0,l=[];for(r=0;r<a;++r){for(e=0,n=0;e<i;e++)n+=t[e][r][1];n>s&&(s=n),o.push(n)}for(r=0;r<a;++r)l[r]=(s-o[r])/2;return l},wiggle:function(t){var e,r,n,i,a,o,s,l,c,u=t.length,f=t[0],h=f.length,p=[];for(p[0]=l=c=0,r=1;r<h;++r){for(e=0,i=0;e<u;++e)i+=t[e][r][1];for(e=0,a=0,s=f[r][0]-f[r-1][0];e<u;++e){for(n=0,o=(t[e][r][1]-t[e][r-1][1])/(2*s);n<e;++n)o+=(t[n][r][1]-t[n][r-1][1])/s;a+=o*t[e][r][1]}p[r]=l-=i?a/i*s:0,l<c&&(c=l)}for(r=0;r<h;++r)p[r]-=c;return p},expand:function(t){var e,r,n,i=t.length,a=t[0].length,o=1/i,s=[];for(r=0;r<a;++r){for(e=0,n=0;e<i;e++)n+=t[e][r][1];if(n)for(e=0;e<i;e++)t[e][r][1]/=n;else for(e=0;e<i;e++)t[e][r][1]=o}for(r=0;r<a;++r)s[r]=0;return s},zero:Va});function ja(e){return t.range(e.length)}function Va(t){for(var e=-1,r=t[0].length,n=[];++e<r;)n[e]=0;return n}function Ua(t){for(var e,r=1,n=0,i=t[0][1],a=t.length;r<a;++r)(e=t[r][1])>i&&(n=r,i=e);return n}function Ha(t){return t.reduce(qa,0)}function qa(t,e){return t+e[1]}function Ga(t,e){return Ya(t,Math.ceil(Math.log(e.length)/Math.LN2+1))}function Ya(t,e){for(var r=-1,n=+t[0],i=(t[1]-n)/e,a=[];++r<=e;)a[r]=i*r+n;return a}function Wa(e){return[t.min(e),t.max(e)]}function Xa(t,e){return t.value-e.value}function Za(t,e){var r=t._pack_next;t._pack_next=e,e._pack_prev=t,e._pack_next=r,r._pack_prev=e}function $a(t,e){t._pack_next=e,e._pack_prev=t}function Ja(t,e){var r=e.x-t.x,n=e.y-t.y,i=t.r+e.r;return.999*i*i>r*r+n*n}function Ka(t){if((e=t.children)&&(l=e.length)){var e,r,n,i,a,o,s,l,c=1/0,u=-1/0,f=1/0,h=-1/0;if(e.forEach(Qa),(r=e[0]).x=-r.r,r.y=0,x(r),l>1&&((n=e[1]).x=n.r,n.y=0,x(n),l>2))for(eo(r,n,i=e[2]),x(i),Za(r,i),r._pack_prev=i,Za(i,n),n=r._pack_next,a=3;a<l;a++){eo(r,n,i=e[a]);var p=0,d=1,g=1;for(o=n._pack_next;o!==n;o=o._pack_next,d++)if(Ja(o,i)){p=1;break}if(1==p)for(s=r._pack_prev;s!==o._pack_prev&&!Ja(s,i);s=s._pack_prev,g++);p?(d<g||d==g&&n.r<r.r?$a(r,n=o):$a(r=s,n),a--):(Za(r,i),n=i,x(i))}var v=(c+u)/2,m=(f+h)/2,y=0;for(a=0;a<l;a++)(i=e[a]).x-=v,i.y-=m,y=Math.max(y,i.r+Math.sqrt(i.x*i.x+i.y*i.y));t.r=y,e.forEach(to)}function x(t){c=Math.min(t.x-t.r,c),u=Math.max(t.x+t.r,u),f=Math.min(t.y-t.r,f),h=Math.max(t.y+t.r,h)}}function Qa(t){t._pack_next=t._pack_prev=t}function to(t){delete t._pack_next,delete t._pack_prev}function eo(t,e,r){var n=t.r+r.r,i=e.x-t.x,a=e.y-t.y;if(n&&(i||a)){var o=e.r+r.r,s=i*i+a*a,l=.5+((n*=n)-(o*=o))/(2*s),c=Math.sqrt(Math.max(0,2*o*(n+s)-(n-=s)*n-o*o))/(2*s);r.x=t.x+l*i+c*a,r.y=t.y+l*a-c*i}else r.x=t.x+n,r.y=t.y}function ro(t,e){return t.parent==e.parent?1:2}function no(t){var e=t.children;return e.length?e[0]:t.t}function io(t){var e,r=t.children;return(e=r.length)?r[e-1]:t.t}function ao(t,e,r){var n=r/(e.i-t.i);e.c-=n,e.s+=r,t.c+=n,e.z+=r,e.m+=r}function oo(t,e,r){return t.a.parent===e.parent?t.a:r}function so(t){return{x:t.x,y:t.y,dx:t.dx,dy:t.dy}}function lo(t,e){var r=t.x+e[3],n=t.y+e[0],i=t.dx-e[1]-e[3],a=t.dy-e[0]-e[2];return i<0&&(r+=i/2,i=0),a<0&&(n+=a/2,a=0),{x:r,y:n,dx:i,dy:a}}function co(t){var e=t[0],r=t[t.length-1];return e<r?[e,r]:[r,e]}function uo(t){return t.rangeExtent?t.rangeExtent():co(t.range())}function fo(t,e,r,n){var i=r(t[0],t[1]),a=n(e[0],e[1]);return function(t){return a(i(t))}}function ho(t,e){var r,n=0,i=t.length-1,a=t[n],o=t[i];return o<a&&(r=n,n=i,i=r,r=a,a=o,o=r),t[n]=e.floor(a),t[i]=e.ceil(o),t}function po(t){return t?{floor:function(e){return Math.floor(e/t)*t},ceil:function(e){return Math.ceil(e/t)*t}}:go}t.layout.histogram=function(){var e=!0,r=Number,n=Wa,i=Ga;function a(a,o){for(var s,l,c=[],u=a.map(r,this),f=n.call(this,u,o),h=i.call(this,f,u,o),p=(o=-1,u.length),d=h.length-1,g=e?1:1/p;++o<d;)(s=c[o]=[]).dx=h[o+1]-(s.x=h[o]),s.y=0;if(d>0)for(o=-1;++o<p;)(l=u[o])>=f[0]&&l<=f[1]&&((s=c[t.bisect(h,l,1,d)-1]).y+=g,s.push(a[o]));return c}return a.value=function(t){return arguments.length?(r=t,a):r},a.range=function(t){return arguments.length?(n=ve(t),a):n},a.bins=function(t){return arguments.length?(i=\\\"number\\\"==typeof t?function(e){return Ya(e,t)}:ve(t),a):i},a.frequency=function(t){return arguments.length?(e=!!t,a):e},a},t.layout.pack=function(){var e,r=t.layout.hierarchy().sort(Xa),n=0,i=[1,1];function a(t,a){var o=r.call(this,t,a),s=o[0],l=i[0],c=i[1],u=null==e?Math.sqrt:\\\"function\\\"==typeof e?e:function(){return e};if(s.x=s.y=0,Ca(s,function(t){t.r=+u(t.value)}),Ca(s,Ka),n){var f=n*(e?1:Math.max(2*s.r/l,2*s.r/c))/2;Ca(s,function(t){t.r+=f}),Ca(s,Ka),Ca(s,function(t){t.r-=f})}return function t(e,r,n,i){var a=e.children;e.x=r+=i*e.x;e.y=n+=i*e.y;e.r*=i;if(a)for(var o=-1,s=a.length;++o<s;)t(a[o],r,n,i)}(s,l/2,c/2,e?1:1/Math.max(2*s.r/l,2*s.r/c)),o}return a.size=function(t){return arguments.length?(i=t,a):i},a.radius=function(t){return arguments.length?(e=null==t||\\\"function\\\"==typeof t?t:+t,a):e},a.padding=function(t){return arguments.length?(n=+t,a):n},Sa(a,r)},t.layout.tree=function(){var e=t.layout.hierarchy().sort(null).value(null),r=ro,n=[1,1],i=null;function a(t,a){var c=e.call(this,t,a),u=c[0],f=function(t){var e,r={A:null,children:[t]},n=[r];for(;null!=(e=n.pop());)for(var i,a=e.children,o=0,s=a.length;o<s;++o)n.push((a[o]=i={_:a[o],parent:e,children:(i=a[o].children)&&i.slice()||[],A:null,a:null,z:0,m:0,c:0,s:0,t:null,i:o}).a=i);return r.children[0]}(u);if(Ca(f,o),f.parent.m=-f.z,Ea(f,s),i)Ea(u,l);else{var h=u,p=u,d=u;Ea(u,function(t){t.x<h.x&&(h=t),t.x>p.x&&(p=t),t.depth>d.depth&&(d=t)});var g=r(h,p)/2-h.x,v=n[0]/(p.x+r(p,h)/2+g),m=n[1]/(d.depth||1);Ea(u,function(t){t.x=(t.x+g)*v,t.y=t.depth*m})}return c}function o(t){var e=t.children,n=t.parent.children,i=t.i?n[t.i-1]:null;if(e.length){!function(t){var e,r=0,n=0,i=t.children,a=i.length;for(;--a>=0;)(e=i[a]).z+=r,e.m+=r,r+=e.s+(n+=e.c)}(t);var a=(e[0].z+e[e.length-1].z)/2;i?(t.z=i.z+r(t._,i._),t.m=t.z-a):t.z=a}else i&&(t.z=i.z+r(t._,i._));t.parent.A=function(t,e,n){if(e){for(var i,a=t,o=t,s=e,l=a.parent.children[0],c=a.m,u=o.m,f=s.m,h=l.m;s=io(s),a=no(a),s&&a;)l=no(l),(o=io(o)).a=t,(i=s.z+f-a.z-c+r(s._,a._))>0&&(ao(oo(s,t,n),t,i),c+=i,u+=i),f+=s.m,c+=a.m,h+=l.m,u+=o.m;s&&!io(o)&&(o.t=s,o.m+=f-u),a&&!no(l)&&(l.t=a,l.m+=c-h,n=t)}return n}(t,i,t.parent.A||n[0])}function s(t){t._.x=t.z+t.parent.m,t.m+=t.parent.m}function l(t){t.x*=n[0],t.y=t.depth*n[1]}return a.separation=function(t){return arguments.length?(r=t,a):r},a.size=function(t){return arguments.length?(i=null==(n=t)?l:null,a):i?null:n},a.nodeSize=function(t){return arguments.length?(i=null==(n=t)?null:l,a):i?n:null},Sa(a,e)},t.layout.cluster=function(){var e=t.layout.hierarchy().sort(null).value(null),r=ro,n=[1,1],i=!1;function a(a,o){var s,l=e.call(this,a,o),c=l[0],u=0;Ca(c,function(e){var n=e.children;n&&n.length?(e.x=function(t){return t.reduce(function(t,e){return t+e.x},0)/t.length}(n),e.y=function(e){return 1+t.max(e,function(t){return t.y})}(n)):(e.x=s?u+=r(e,s):0,e.y=0,s=e)});var f=function t(e){var r=e.children;return r&&r.length?t(r[0]):e}(c),h=function t(e){var r,n=e.children;return n&&(r=n.length)?t(n[r-1]):e}(c),p=f.x-r(f,h)/2,d=h.x+r(h,f)/2;return Ca(c,i?function(t){t.x=(t.x-c.x)*n[0],t.y=(c.y-t.y)*n[1]}:function(t){t.x=(t.x-p)/(d-p)*n[0],t.y=(1-(c.y?t.y/c.y:1))*n[1]}),l}return a.separation=function(t){return arguments.length?(r=t,a):r},a.size=function(t){return arguments.length?(i=null==(n=t),a):i?null:n},a.nodeSize=function(t){return arguments.length?(i=null!=(n=t),a):i?n:null},Sa(a,e)},t.layout.treemap=function(){var e,r=t.layout.hierarchy(),n=Math.round,i=[1,1],a=null,o=so,s=!1,l=\\\"squarify\\\",c=.5*(1+Math.sqrt(5));function u(t,e){for(var r,n,i=-1,a=t.length;++i<a;)n=(r=t[i]).value*(e<0?0:e),r.area=isNaN(n)||n<=0?0:n}function f(t){var e=t.children;if(e&&e.length){var r,n,i,a=o(t),s=[],c=e.slice(),h=1/0,g=\\\"slice\\\"===l?a.dx:\\\"dice\\\"===l?a.dy:\\\"slice-dice\\\"===l?1&t.depth?a.dy:a.dx:Math.min(a.dx,a.dy);for(u(c,a.dx*a.dy/t.value),s.area=0;(i=c.length)>0;)s.push(r=c[i-1]),s.area+=r.area,\\\"squarify\\\"!==l||(n=p(s,g))<=h?(c.pop(),h=n):(s.area-=s.pop().area,d(s,g,a,!1),g=Math.min(a.dx,a.dy),s.length=s.area=0,h=1/0);s.length&&(d(s,g,a,!0),s.length=s.area=0),e.forEach(f)}}function h(t){var e=t.children;if(e&&e.length){var r,n=o(t),i=e.slice(),a=[];for(u(i,n.dx*n.dy/t.value),a.area=0;r=i.pop();)a.push(r),a.area+=r.area,null!=r.z&&(d(a,r.z?n.dx:n.dy,n,!i.length),a.length=a.area=0);e.forEach(h)}}function p(t,e){for(var r,n=t.area,i=0,a=1/0,o=-1,s=t.length;++o<s;)(r=t[o].area)&&(r<a&&(a=r),r>i&&(i=r));return e*=e,(n*=n)?Math.max(e*i*c/n,n/(e*a*c)):1/0}function d(t,e,r,i){var a,o=-1,s=t.length,l=r.x,c=r.y,u=e?n(t.area/e):0;if(e==r.dx){for((i||u>r.dy)&&(u=r.dy);++o<s;)(a=t[o]).x=l,a.y=c,a.dy=u,l+=a.dx=Math.min(r.x+r.dx-l,u?n(a.area/u):0);a.z=!0,a.dx+=r.x+r.dx-l,r.y+=u,r.dy-=u}else{for((i||u>r.dx)&&(u=r.dx);++o<s;)(a=t[o]).x=l,a.y=c,a.dx=u,c+=a.dy=Math.min(r.y+r.dy-c,u?n(a.area/u):0);a.z=!1,a.dy+=r.y+r.dy-c,r.x+=u,r.dx-=u}}function g(t){var n=e||r(t),a=n[0];return a.x=a.y=0,a.value?(a.dx=i[0],a.dy=i[1]):a.dx=a.dy=0,e&&r.revalue(a),u([a],a.dx*a.dy/a.value),(e?h:f)(a),s&&(e=n),n}return g.size=function(t){return arguments.length?(i=t,g):i},g.padding=function(t){if(!arguments.length)return a;function e(e){return lo(e,t)}var r;return o=null==(a=t)?so:\\\"function\\\"==(r=typeof t)?function(e){var r=t.call(g,e,e.depth);return null==r?so(e):lo(e,\\\"number\\\"==typeof r?[r,r,r,r]:r)}:\\\"number\\\"===r?(t=[t,t,t,t],e):e,g},g.round=function(t){return arguments.length?(n=t?Math.round:Number,g):n!=Number},g.sticky=function(t){return arguments.length?(s=t,e=null,g):s},g.ratio=function(t){return arguments.length?(c=t,g):c},g.mode=function(t){return arguments.length?(l=t+\\\"\\\",g):l},Sa(g,r)},t.random={normal:function(t,e){var r=arguments.length;return r<2&&(e=1),r<1&&(t=0),function(){var r,n,i;do{i=(r=2*Math.random()-1)*r+(n=2*Math.random()-1)*n}while(!i||i>1);return t+e*r*Math.sqrt(-2*Math.log(i)/i)}},logNormal:function(){var e=t.random.normal.apply(t,arguments);return function(){return Math.exp(e())}},bates:function(e){var r=t.random.irwinHall(e);return function(){return r()/e}},irwinHall:function(t){return function(){for(var e=0,r=0;r<t;r++)e+=Math.random();return e}}},t.scale={};var go={floor:z,ceil:z};function vo(e,r,n,i){var a=[],o=[],s=0,l=Math.min(e.length,r.length)-1;for(e[l]<e[0]&&(e=e.slice().reverse(),r=r.slice().reverse());++s<=l;)a.push(n(e[s-1],e[s])),o.push(i(r[s-1],r[s]));return function(r){var n=t.bisect(e,r,1,l)-1;return o[n](a[n](r))}}function mo(e,r){return t.rebind(e,r,\\\"range\\\",\\\"rangeRound\\\",\\\"interpolate\\\",\\\"clamp\\\")}function yo(t,e){return ho(t,po(xo(t,e)[2])),ho(t,po(xo(t,e)[2])),t}function xo(t,e){null==e&&(e=10);var r=co(t),n=r[1]-r[0],i=Math.pow(10,Math.floor(Math.log(n/e)/Math.LN10)),a=e/n*i;return a<=.15?i*=10:a<=.35?i*=5:a<=.75&&(i*=2),r[0]=Math.ceil(r[0]/i)*i,r[1]=Math.floor(r[1]/i)*i+.5*i,r[2]=i,r}function bo(e,r){return t.range.apply(t,xo(e,r))}function _o(e,r,n){var i=xo(e,r);if(n){var a=Le.exec(n);if(a.shift(),\\\"s\\\"===a[8]){var o=t.formatPrefix(Math.max(y(i[0]),y(i[1])));return a[7]||(a[7]=\\\".\\\"+ko(o.scale(i[2]))),a[8]=\\\"f\\\",n=t.format(a.join(\\\"\\\")),function(t){return n(o.scale(t))+o.symbol}}a[7]||(a[7]=\\\".\\\"+function(t,e){var r=ko(e[2]);return t in wo?Math.abs(r-ko(Math.max(y(e[0]),y(e[1]))))+ +(\\\"e\\\"!==t):r-2*(\\\"%\\\"===t)}(a[8],i)),n=a.join(\\\"\\\")}else n=\\\",.\\\"+ko(i[2])+\\\"f\\\";return t.format(n)}t.scale.linear=function(){return function t(e,r,n,i){var a,o;function s(){var t=Math.min(e.length,r.length)>2?vo:fo,s=i?ma:va;return a=t(e,r,s,n),o=t(r,e,s,Zi),l}function l(t){return a(t)}l.invert=function(t){return o(t)};l.domain=function(t){return arguments.length?(e=t.map(Number),s()):e};l.range=function(t){return arguments.length?(r=t,s()):r};l.rangeRound=function(t){return l.range(t).interpolate(ca)};l.clamp=function(t){return arguments.length?(i=t,s()):i};l.interpolate=function(t){return arguments.length?(n=t,s()):n};l.ticks=function(t){return bo(e,t)};l.tickFormat=function(t,r){return _o(e,t,r)};l.nice=function(t){return yo(e,t),s()};l.copy=function(){return t(e,r,n,i)};return s()}([0,1],[0,1],Zi,!1)};var wo={s:1,g:1,p:1,r:1,e:1};function ko(t){return-Math.floor(Math.log(t)/Math.LN10+.01)}t.scale.log=function(){return function e(r,n,i,a){function o(t){return(i?Math.log(t<0?0:t):-Math.log(t>0?0:-t))/Math.log(n)}function s(t){return i?Math.pow(n,t):-Math.pow(n,-t)}function l(t){return r(o(t))}l.invert=function(t){return s(r.invert(t))};l.domain=function(t){return arguments.length?(i=t[0]>=0,r.domain((a=t.map(Number)).map(o)),l):a};l.base=function(t){return arguments.length?(n=+t,r.domain(a.map(o)),l):n};l.nice=function(){var t=ho(a.map(o),i?Math:Ao);return r.domain(t),a=t.map(s),l};l.ticks=function(){var t=co(a),e=[],r=t[0],l=t[1],c=Math.floor(o(r)),u=Math.ceil(o(l)),f=n%1?2:n;if(isFinite(u-c)){if(i){for(;c<u;c++)for(var h=1;h<f;h++)e.push(s(c)*h);e.push(s(c))}else for(e.push(s(c));c++<u;)for(var h=f-1;h>0;h--)e.push(s(c)*h);for(c=0;e[c]<r;c++);for(u=e.length;e[u-1]>l;u--);e=e.slice(c,u)}return e};l.tickFormat=function(e,r){if(!arguments.length)return To;arguments.length<2?r=To:\\\"function\\\"!=typeof r&&(r=t.format(r));var i=Math.max(1,n*e/l.ticks().length);return function(t){var e=t/s(Math.round(o(t)));return e*n<n-.5&&(e*=n),e<=i?r(t):\\\"\\\"}};l.copy=function(){return e(r.copy(),n,i,a)};return mo(l,r)}(t.scale.linear().domain([0,1]),10,!0,[1,10])};var To=t.format(\\\".0e\\\"),Ao={floor:function(t){return-Math.ceil(-t)},ceil:function(t){return-Math.floor(-t)}};function Mo(t){return function(e){return e<0?-Math.pow(-e,t):Math.pow(e,t)}}t.scale.pow=function(){return function t(e,r,n){var i=Mo(r),a=Mo(1/r);function o(t){return e(i(t))}o.invert=function(t){return a(e.invert(t))};o.domain=function(t){return arguments.length?(e.domain((n=t.map(Number)).map(i)),o):n};o.ticks=function(t){return bo(n,t)};o.tickFormat=function(t,e){return _o(n,t,e)};o.nice=function(t){return o.domain(yo(n,t))};o.exponent=function(t){return arguments.length?(i=Mo(r=t),a=Mo(1/r),e.domain(n.map(i)),o):r};o.copy=function(){return t(e.copy(),r,n)};return mo(o,e)}(t.scale.linear(),1,[0,1])},t.scale.sqrt=function(){return t.scale.pow().exponent(.5)},t.scale.ordinal=function(){return function e(r,n){var i,a,o;function s(t){return a[((i.get(t)||(\\\"range\\\"===n.t?i.set(t,r.push(t)):NaN))-1)%a.length]}function l(e,n){return t.range(r.length).map(function(t){return e+n*t})}s.domain=function(t){if(!arguments.length)return r;r=[],i=new b;for(var e,a=-1,o=t.length;++a<o;)i.has(e=t[a])||i.set(e,r.push(e));return s[n.t].apply(s,n.a)};s.range=function(t){return arguments.length?(a=t,o=0,n={t:\\\"range\\\",a:arguments},s):a};s.rangePoints=function(t,e){arguments.length<2&&(e=0);var i=t[0],c=t[1],u=r.length<2?(i=(i+c)/2,0):(c-i)/(r.length-1+e);return a=l(i+u*e/2,u),o=0,n={t:\\\"rangePoints\\\",a:arguments},s};s.rangeRoundPoints=function(t,e){arguments.length<2&&(e=0);var i=t[0],c=t[1],u=r.length<2?(i=c=Math.round((i+c)/2),0):(c-i)/(r.length-1+e)|0;return a=l(i+Math.round(u*e/2+(c-i-(r.length-1+e)*u)/2),u),o=0,n={t:\\\"rangeRoundPoints\\\",a:arguments},s};s.rangeBands=function(t,e,i){arguments.length<2&&(e=0),arguments.length<3&&(i=e);var c=t[1]<t[0],u=t[c-0],f=t[1-c],h=(f-u)/(r.length-e+2*i);return a=l(u+h*i,h),c&&a.reverse(),o=h*(1-e),n={t:\\\"rangeBands\\\",a:arguments},s};s.rangeRoundBands=function(t,e,i){arguments.length<2&&(e=0),arguments.length<3&&(i=e);var c=t[1]<t[0],u=t[c-0],f=t[1-c],h=Math.floor((f-u)/(r.length-e+2*i));return a=l(u+Math.round((f-u-(r.length-e)*h)/2),h),c&&a.reverse(),o=Math.round(h*(1-e)),n={t:\\\"rangeRoundBands\\\",a:arguments},s};s.rangeBand=function(){return o};s.rangeExtent=function(){return co(n.a[0])};s.copy=function(){return e(r,n)};return s.domain(r)}([],{t:\\\"range\\\",a:[[]]})},t.scale.category10=function(){return t.scale.ordinal().range(So)},t.scale.category20=function(){return t.scale.ordinal().range(Eo)},t.scale.category20b=function(){return t.scale.ordinal().range(Co)},t.scale.category20c=function(){return t.scale.ordinal().range(Lo)};var So=[2062260,16744206,2924588,14034728,9725885,9197131,14907330,8355711,12369186,1556175].map(se),Eo=[2062260,11454440,16744206,16759672,2924588,10018698,14034728,16750742,9725885,12955861,9197131,12885140,14907330,16234194,8355711,13092807,12369186,14408589,1556175,10410725].map(se),Co=[3750777,5395619,7040719,10264286,6519097,9216594,11915115,13556636,9202993,12426809,15186514,15190932,8666169,11356490,14049643,15177372,8077683,10834324,13528509,14589654].map(se),Lo=[3244733,7057110,10406625,13032431,15095053,16616764,16625259,16634018,3253076,7652470,10607003,13101504,7695281,10394312,12369372,14342891,6513507,9868950,12434877,14277081].map(se);function zo(){return 0}t.scale.quantile=function(){return function e(r,n){var i;function a(){var e=0,a=n.length;for(i=[];++e<a;)i[e-1]=t.quantile(r,e/a);return o}function o(e){if(!isNaN(e=+e))return n[t.bisect(i,e)]}o.domain=function(t){return arguments.length?(r=t.map(p).filter(d).sort(h),a()):r};o.range=function(t){return arguments.length?(n=t,a()):n};o.quantiles=function(){return i};o.invertExtent=function(t){return(t=n.indexOf(t))<0?[NaN,NaN]:[t>0?i[t-1]:r[0],t<i.length?i[t]:r[r.length-1]]};o.copy=function(){return e(r,n)};return a()}([],[])},t.scale.quantize=function(){return function t(e,r,n){var i,a;function o(t){return n[Math.max(0,Math.min(a,Math.floor(i*(t-e))))]}function s(){return i=n.length/(r-e),a=n.length-1,o}o.domain=function(t){return arguments.length?(e=+t[0],r=+t[t.length-1],s()):[e,r]};o.range=function(t){return arguments.length?(n=t,s()):n};o.invertExtent=function(t){return[t=(t=n.indexOf(t))<0?NaN:t/i+e,t+1/i]};o.copy=function(){return t(e,r,n)};return s()}(0,1,[0,1])},t.scale.threshold=function(){return function e(r,n){function i(e){if(e<=e)return n[t.bisect(r,e)]}i.domain=function(t){return arguments.length?(r=t,i):r};i.range=function(t){return arguments.length?(n=t,i):n};i.invertExtent=function(t){return t=n.indexOf(t),[r[t-1],r[t]]};i.copy=function(){return e(r,n)};return i}([.5],[0,1])},t.scale.identity=function(){return function t(e){function r(t){return+t}r.invert=r;r.domain=r.range=function(t){return arguments.length?(e=t.map(r),r):e};r.ticks=function(t){return bo(e,t)};r.tickFormat=function(t,r){return _o(e,t,r)};r.copy=function(){return t(e)};return r}([0,1])},t.svg={},t.svg.arc=function(){var t=Io,e=Do,r=zo,n=Oo,i=Po,a=Ro,o=Fo;function s(){var s=Math.max(0,+t.apply(this,arguments)),c=Math.max(0,+e.apply(this,arguments)),u=i.apply(this,arguments)-Et,f=a.apply(this,arguments)-Et,h=Math.abs(f-u),p=u>f?0:1;if(c<s&&(d=c,c=s,s=d),h>=St)return l(c,p)+(s?l(s,1-p):\\\"\\\")+\\\"Z\\\";var d,g,v,m,y,x,b,_,w,k,T,A,M=0,S=0,E=[];if((m=(+o.apply(this,arguments)||0)/2)&&(v=n===Oo?Math.sqrt(s*s+c*c):+n.apply(this,arguments),p||(S*=-1),c&&(S=Dt(v/c*Math.sin(m))),s&&(M=Dt(v/s*Math.sin(m)))),c){y=c*Math.cos(u+S),x=c*Math.sin(u+S),b=c*Math.cos(f-S),_=c*Math.sin(f-S);var C=Math.abs(f-u-2*S)<=At?0:1;if(S&&Bo(y,x,b,_)===p^C){var L=(u+f)/2;y=c*Math.cos(L),x=c*Math.sin(L),b=_=null}}else y=x=0;if(s){w=s*Math.cos(f-M),k=s*Math.sin(f-M),T=s*Math.cos(u+M),A=s*Math.sin(u+M);var z=Math.abs(u-f+2*M)<=At?0:1;if(M&&Bo(w,k,T,A)===1-p^z){var O=(u+f)/2;w=s*Math.cos(O),k=s*Math.sin(O),T=A=null}}else w=k=0;if(h>kt&&(d=Math.min(Math.abs(c-s)/2,+r.apply(this,arguments)))>.001){g=s<c^p?0:1;var I=d,D=d;if(h<At){var P=null==T?[w,k]:null==b?[y,x]:si([y,x],[T,A],[b,_],[w,k]),R=y-P[0],F=x-P[1],B=b-P[0],N=_-P[1],j=1/Math.sin(Math.acos((R*B+F*N)/(Math.sqrt(R*R+F*F)*Math.sqrt(B*B+N*N)))/2),V=Math.sqrt(P[0]*P[0]+P[1]*P[1]);D=Math.min(d,(s-V)/(j-1)),I=Math.min(d,(c-V)/(j+1))}if(null!=b){var U=No(null==T?[w,k]:[T,A],[y,x],c,I,p),H=No([b,_],[w,k],c,I,p);d===I?E.push(\\\"M\\\",U[0],\\\"A\\\",I,\\\",\\\",I,\\\" 0 0,\\\",g,\\\" \\\",U[1],\\\"A\\\",c,\\\",\\\",c,\\\" 0 \\\",1-p^Bo(U[1][0],U[1][1],H[1][0],H[1][1]),\\\",\\\",p,\\\" \\\",H[1],\\\"A\\\",I,\\\",\\\",I,\\\" 0 0,\\\",g,\\\" \\\",H[0]):E.push(\\\"M\\\",U[0],\\\"A\\\",I,\\\",\\\",I,\\\" 0 1,\\\",g,\\\" \\\",H[0])}else E.push(\\\"M\\\",y,\\\",\\\",x);if(null!=T){var q=No([y,x],[T,A],s,-D,p),G=No([w,k],null==b?[y,x]:[b,_],s,-D,p);d===D?E.push(\\\"L\\\",G[0],\\\"A\\\",D,\\\",\\\",D,\\\" 0 0,\\\",g,\\\" \\\",G[1],\\\"A\\\",s,\\\",\\\",s,\\\" 0 \\\",p^Bo(G[1][0],G[1][1],q[1][0],q[1][1]),\\\",\\\",1-p,\\\" \\\",q[1],\\\"A\\\",D,\\\",\\\",D,\\\" 0 0,\\\",g,\\\" \\\",q[0]):E.push(\\\"L\\\",G[0],\\\"A\\\",D,\\\",\\\",D,\\\" 0 0,\\\",g,\\\" \\\",q[0])}else E.push(\\\"L\\\",w,\\\",\\\",k)}else E.push(\\\"M\\\",y,\\\",\\\",x),null!=b&&E.push(\\\"A\\\",c,\\\",\\\",c,\\\" 0 \\\",C,\\\",\\\",p,\\\" \\\",b,\\\",\\\",_),E.push(\\\"L\\\",w,\\\",\\\",k),null!=T&&E.push(\\\"A\\\",s,\\\",\\\",s,\\\" 0 \\\",z,\\\",\\\",1-p,\\\" \\\",T,\\\",\\\",A);return E.push(\\\"Z\\\"),E.join(\\\"\\\")}function l(t,e){return\\\"M0,\\\"+t+\\\"A\\\"+t+\\\",\\\"+t+\\\" 0 1,\\\"+e+\\\" 0,\\\"+-t+\\\"A\\\"+t+\\\",\\\"+t+\\\" 0 1,\\\"+e+\\\" 0,\\\"+t}return s.innerRadius=function(e){return arguments.length?(t=ve(e),s):t},s.outerRadius=function(t){return arguments.length?(e=ve(t),s):e},s.cornerRadius=function(t){return arguments.length?(r=ve(t),s):r},s.padRadius=function(t){return arguments.length?(n=t==Oo?Oo:ve(t),s):n},s.startAngle=function(t){return arguments.length?(i=ve(t),s):i},s.endAngle=function(t){return arguments.length?(a=ve(t),s):a},s.padAngle=function(t){return arguments.length?(o=ve(t),s):o},s.centroid=function(){var r=(+t.apply(this,arguments)+ +e.apply(this,arguments))/2,n=(+i.apply(this,arguments)+ +a.apply(this,arguments))/2-Et;return[Math.cos(n)*r,Math.sin(n)*r]},s};var Oo=\\\"auto\\\";function Io(t){return t.innerRadius}function Do(t){return t.outerRadius}function Po(t){return t.startAngle}function Ro(t){return t.endAngle}function Fo(t){return t&&t.padAngle}function Bo(t,e,r,n){return(t-r)*e-(e-n)*t>0?0:1}function No(t,e,r,n,i){var a=t[0]-e[0],o=t[1]-e[1],s=(i?n:-n)/Math.sqrt(a*a+o*o),l=s*o,c=-s*a,u=t[0]+l,f=t[1]+c,h=e[0]+l,p=e[1]+c,d=(u+h)/2,g=(f+p)/2,v=h-u,m=p-f,y=v*v+m*m,x=r-n,b=u*p-h*f,_=(m<0?-1:1)*Math.sqrt(Math.max(0,x*x*y-b*b)),w=(b*m-v*_)/y,k=(-b*v-m*_)/y,T=(b*m+v*_)/y,A=(-b*v+m*_)/y,M=w-d,S=k-g,E=T-d,C=A-g;return M*M+S*S>E*E+C*C&&(w=T,k=A),[[w-l,k-c],[w*r/x,k*r/x]]}function jo(t){var e=ei,r=ri,n=Yr,i=Uo,a=i.key,o=.7;function s(a){var s,l=[],c=[],u=-1,f=a.length,h=ve(e),p=ve(r);function d(){l.push(\\\"M\\\",i(t(c),o))}for(;++u<f;)n.call(this,s=a[u],u)?c.push([+h.call(this,s,u),+p.call(this,s,u)]):c.length&&(d(),c=[]);return c.length&&d(),l.length?l.join(\\\"\\\"):null}return s.x=function(t){return arguments.length?(e=t,s):e},s.y=function(t){return arguments.length?(r=t,s):r},s.defined=function(t){return arguments.length?(n=t,s):n},s.interpolate=function(t){return arguments.length?(a=\\\"function\\\"==typeof t?i=t:(i=Vo.get(t)||Uo).key,s):a},s.tension=function(t){return arguments.length?(o=t,s):o},s}t.svg.line=function(){return jo(z)};var Vo=t.map({linear:Uo,\\\"linear-closed\\\":Ho,step:function(t){var e=0,r=t.length,n=t[0],i=[n[0],\\\",\\\",n[1]];for(;++e<r;)i.push(\\\"H\\\",(n[0]+(n=t[e])[0])/2,\\\"V\\\",n[1]);r>1&&i.push(\\\"H\\\",n[0]);return i.join(\\\"\\\")},\\\"step-before\\\":qo,\\\"step-after\\\":Go,basis:Xo,\\\"basis-open\\\":function(t){if(t.length<4)return Uo(t);var e,r=[],n=-1,i=t.length,a=[0],o=[0];for(;++n<3;)e=t[n],a.push(e[0]),o.push(e[1]);r.push(Zo(Ko,a)+\\\",\\\"+Zo(Ko,o)),--n;for(;++n<i;)e=t[n],a.shift(),a.push(e[0]),o.shift(),o.push(e[1]),Qo(r,a,o);return r.join(\\\"\\\")},\\\"basis-closed\\\":function(t){var e,r,n=-1,i=t.length,a=i+4,o=[],s=[];for(;++n<4;)r=t[n%i],o.push(r[0]),s.push(r[1]);e=[Zo(Ko,o),\\\",\\\",Zo(Ko,s)],--n;for(;++n<a;)r=t[n%i],o.shift(),o.push(r[0]),s.shift(),s.push(r[1]),Qo(e,o,s);return e.join(\\\"\\\")},bundle:function(t,e){var r=t.length-1;if(r)for(var n,i,a=t[0][0],o=t[0][1],s=t[r][0]-a,l=t[r][1]-o,c=-1;++c<=r;)n=t[c],i=c/r,n[0]=e*n[0]+(1-e)*(a+i*s),n[1]=e*n[1]+(1-e)*(o+i*l);return Xo(t)},cardinal:function(t,e){return t.length<3?Uo(t):t[0]+Yo(t,Wo(t,e))},\\\"cardinal-open\\\":function(t,e){return t.length<4?Uo(t):t[1]+Yo(t.slice(1,-1),Wo(t,e))},\\\"cardinal-closed\\\":function(t,e){return t.length<3?Ho(t):t[0]+Yo((t.push(t[0]),t),Wo([t[t.length-2]].concat(t,[t[1]]),e))},monotone:function(t){return t.length<3?Uo(t):t[0]+Yo(t,function(t){var e,r,n,i,a=[],o=function(t){var e=0,r=t.length-1,n=[],i=t[0],a=t[1],o=n[0]=ts(i,a);for(;++e<r;)n[e]=(o+(o=ts(i=a,a=t[e+1])))/2;return n[e]=o,n}(t),s=-1,l=t.length-1;for(;++s<l;)e=ts(t[s],t[s+1]),y(e)<kt?o[s]=o[s+1]=0:(r=o[s]/e,n=o[s+1]/e,(i=r*r+n*n)>9&&(i=3*e/Math.sqrt(i),o[s]=i*r,o[s+1]=i*n));s=-1;for(;++s<=l;)i=(t[Math.min(l,s+1)][0]-t[Math.max(0,s-1)][0])/(6*(1+o[s]*o[s])),a.push([i||0,o[s]*i||0]);return a}(t))}});function Uo(t){return t.length>1?t.join(\\\"L\\\"):t+\\\"Z\\\"}function Ho(t){return t.join(\\\"L\\\")+\\\"Z\\\"}function qo(t){for(var e=0,r=t.length,n=t[0],i=[n[0],\\\",\\\",n[1]];++e<r;)i.push(\\\"V\\\",(n=t[e])[1],\\\"H\\\",n[0]);return i.join(\\\"\\\")}function Go(t){for(var e=0,r=t.length,n=t[0],i=[n[0],\\\",\\\",n[1]];++e<r;)i.push(\\\"H\\\",(n=t[e])[0],\\\"V\\\",n[1]);return i.join(\\\"\\\")}function Yo(t,e){if(e.length<1||t.length!=e.length&&t.length!=e.length+2)return Uo(t);var r=t.length!=e.length,n=\\\"\\\",i=t[0],a=t[1],o=e[0],s=o,l=1;if(r&&(n+=\\\"Q\\\"+(a[0]-2*o[0]/3)+\\\",\\\"+(a[1]-2*o[1]/3)+\\\",\\\"+a[0]+\\\",\\\"+a[1],i=t[1],l=2),e.length>1){s=e[1],a=t[l],l++,n+=\\\"C\\\"+(i[0]+o[0])+\\\",\\\"+(i[1]+o[1])+\\\",\\\"+(a[0]-s[0])+\\\",\\\"+(a[1]-s[1])+\\\",\\\"+a[0]+\\\",\\\"+a[1];for(var c=2;c<e.length;c++,l++)a=t[l],s=e[c],n+=\\\"S\\\"+(a[0]-s[0])+\\\",\\\"+(a[1]-s[1])+\\\",\\\"+a[0]+\\\",\\\"+a[1]}if(r){var u=t[l];n+=\\\"Q\\\"+(a[0]+2*s[0]/3)+\\\",\\\"+(a[1]+2*s[1]/3)+\\\",\\\"+u[0]+\\\",\\\"+u[1]}return n}function Wo(t,e){for(var r,n=[],i=(1-e)/2,a=t[0],o=t[1],s=1,l=t.length;++s<l;)r=a,a=o,o=t[s],n.push([i*(o[0]-r[0]),i*(o[1]-r[1])]);return n}function Xo(t){if(t.length<3)return Uo(t);var e=1,r=t.length,n=t[0],i=n[0],a=n[1],o=[i,i,i,(n=t[1])[0]],s=[a,a,a,n[1]],l=[i,\\\",\\\",a,\\\"L\\\",Zo(Ko,o),\\\",\\\",Zo(Ko,s)];for(t.push(t[r-1]);++e<=r;)n=t[e],o.shift(),o.push(n[0]),s.shift(),s.push(n[1]),Qo(l,o,s);return t.pop(),l.push(\\\"L\\\",n),l.join(\\\"\\\")}function Zo(t,e){return t[0]*e[0]+t[1]*e[1]+t[2]*e[2]+t[3]*e[3]}Vo.forEach(function(t,e){e.key=t,e.closed=/-closed$/.test(t)});var $o=[0,2/3,1/3,0],Jo=[0,1/3,2/3,0],Ko=[0,1/6,2/3,1/6];function Qo(t,e,r){t.push(\\\"C\\\",Zo($o,e),\\\",\\\",Zo($o,r),\\\",\\\",Zo(Jo,e),\\\",\\\",Zo(Jo,r),\\\",\\\",Zo(Ko,e),\\\",\\\",Zo(Ko,r))}function ts(t,e){return(e[1]-t[1])/(e[0]-t[0])}function es(t){for(var e,r,n,i=-1,a=t.length;++i<a;)r=(e=t[i])[0],n=e[1]-Et,e[0]=r*Math.cos(n),e[1]=r*Math.sin(n);return t}function rs(t){var e=ei,r=ei,n=0,i=ri,a=Yr,o=Uo,s=o.key,l=o,c=\\\"L\\\",u=.7;function f(s){var f,h,p,d=[],g=[],v=[],m=-1,y=s.length,x=ve(e),b=ve(n),_=e===r?function(){return h}:ve(r),w=n===i?function(){return p}:ve(i);function k(){d.push(\\\"M\\\",o(t(v),u),c,l(t(g.reverse()),u),\\\"Z\\\")}for(;++m<y;)a.call(this,f=s[m],m)?(g.push([h=+x.call(this,f,m),p=+b.call(this,f,m)]),v.push([+_.call(this,f,m),+w.call(this,f,m)])):g.length&&(k(),g=[],v=[]);return g.length&&k(),d.length?d.join(\\\"\\\"):null}return f.x=function(t){return arguments.length?(e=r=t,f):r},f.x0=function(t){return arguments.length?(e=t,f):e},f.x1=function(t){return arguments.length?(r=t,f):r},f.y=function(t){return arguments.length?(n=i=t,f):i},f.y0=function(t){return arguments.length?(n=t,f):n},f.y1=function(t){return arguments.length?(i=t,f):i},f.defined=function(t){return arguments.length?(a=t,f):a},f.interpolate=function(t){return arguments.length?(s=\\\"function\\\"==typeof t?o=t:(o=Vo.get(t)||Uo).key,l=o.reverse||o,c=o.closed?\\\"M\\\":\\\"L\\\",f):s},f.tension=function(t){return arguments.length?(u=t,f):u},f}function ns(t){return t.radius}function is(t){return[t.x,t.y]}function as(){return 64}function os(){return\\\"circle\\\"}function ss(t){var e=Math.sqrt(t/At);return\\\"M0,\\\"+e+\\\"A\\\"+e+\\\",\\\"+e+\\\" 0 1,1 0,\\\"+-e+\\\"A\\\"+e+\\\",\\\"+e+\\\" 0 1,1 0,\\\"+e+\\\"Z\\\"}t.svg.line.radial=function(){var t=jo(es);return t.radius=t.x,delete t.x,t.angle=t.y,delete t.y,t},qo.reverse=Go,Go.reverse=qo,t.svg.area=function(){return rs(z)},t.svg.area.radial=function(){var t=rs(es);return t.radius=t.x,delete t.x,t.innerRadius=t.x0,delete t.x0,t.outerRadius=t.x1,delete t.x1,t.angle=t.y,delete t.y,t.startAngle=t.y0,delete t.y0,t.endAngle=t.y1,delete t.y1,t},t.svg.chord=function(){var t=Vn,e=Un,r=ns,n=Po,i=Ro;function a(r,n){var i,a,c=o(this,t,r,n),u=o(this,e,r,n);return\\\"M\\\"+c.p0+s(c.r,c.p1,c.a1-c.a0)+(a=u,(i=c).a0==a.a0&&i.a1==a.a1?l(c.r,c.p1,c.r,c.p0):l(c.r,c.p1,u.r,u.p0)+s(u.r,u.p1,u.a1-u.a0)+l(u.r,u.p1,c.r,c.p0))+\\\"Z\\\"}function o(t,e,a,o){var s=e.call(t,a,o),l=r.call(t,s,o),c=n.call(t,s,o)-Et,u=i.call(t,s,o)-Et;return{r:l,a0:c,a1:u,p0:[l*Math.cos(c),l*Math.sin(c)],p1:[l*Math.cos(u),l*Math.sin(u)]}}function s(t,e,r){return\\\"A\\\"+t+\\\",\\\"+t+\\\" 0 \\\"+ +(r>At)+\\\",1 \\\"+e}function l(t,e,r,n){return\\\"Q 0,0 \\\"+n}return a.radius=function(t){return arguments.length?(r=ve(t),a):r},a.source=function(e){return arguments.length?(t=ve(e),a):t},a.target=function(t){return arguments.length?(e=ve(t),a):e},a.startAngle=function(t){return arguments.length?(n=ve(t),a):n},a.endAngle=function(t){return arguments.length?(i=ve(t),a):i},a},t.svg.diagonal=function(){var t=Vn,e=Un,r=is;function n(n,i){var a=t.call(this,n,i),o=e.call(this,n,i),s=(a.y+o.y)/2,l=[a,{x:a.x,y:s},{x:o.x,y:s},o];return\\\"M\\\"+(l=l.map(r))[0]+\\\"C\\\"+l[1]+\\\" \\\"+l[2]+\\\" \\\"+l[3]}return n.source=function(e){return arguments.length?(t=ve(e),n):t},n.target=function(t){return arguments.length?(e=ve(t),n):e},n.projection=function(t){return arguments.length?(r=t,n):r},n},t.svg.diagonal.radial=function(){var e=t.svg.diagonal(),r=is,n=e.projection;return e.projection=function(t){return arguments.length?n(function(t){return function(){var e=t.apply(this,arguments),r=e[0],n=e[1]-Et;return[r*Math.cos(n),r*Math.sin(n)]}}(r=t)):r},e},t.svg.symbol=function(){var t=os,e=as;function r(r,n){return(ls.get(t.call(this,r,n))||ss)(e.call(this,r,n))}return r.type=function(e){return arguments.length?(t=ve(e),r):t},r.size=function(t){return arguments.length?(e=ve(t),r):e},r};var ls=t.map({circle:ss,cross:function(t){var e=Math.sqrt(t/5)/2;return\\\"M\\\"+-3*e+\\\",\\\"+-e+\\\"H\\\"+-e+\\\"V\\\"+-3*e+\\\"H\\\"+e+\\\"V\\\"+-e+\\\"H\\\"+3*e+\\\"V\\\"+e+\\\"H\\\"+e+\\\"V\\\"+3*e+\\\"H\\\"+-e+\\\"V\\\"+e+\\\"H\\\"+-3*e+\\\"Z\\\"},diamond:function(t){var e=Math.sqrt(t/(2*us)),r=e*us;return\\\"M0,\\\"+-e+\\\"L\\\"+r+\\\",0 0,\\\"+e+\\\" \\\"+-r+\\\",0Z\\\"},square:function(t){var e=Math.sqrt(t)/2;return\\\"M\\\"+-e+\\\",\\\"+-e+\\\"L\\\"+e+\\\",\\\"+-e+\\\" \\\"+e+\\\",\\\"+e+\\\" \\\"+-e+\\\",\\\"+e+\\\"Z\\\"},\\\"triangle-down\\\":function(t){var e=Math.sqrt(t/cs),r=e*cs/2;return\\\"M0,\\\"+r+\\\"L\\\"+e+\\\",\\\"+-r+\\\" \\\"+-e+\\\",\\\"+-r+\\\"Z\\\"},\\\"triangle-up\\\":function(t){var e=Math.sqrt(t/cs),r=e*cs/2;return\\\"M0,\\\"+-r+\\\"L\\\"+e+\\\",\\\"+r+\\\" \\\"+-e+\\\",\\\"+r+\\\"Z\\\"}});t.svg.symbolTypes=ls.keys();var cs=Math.sqrt(3),us=Math.tan(30*Ct);W.transition=function(t){for(var e,r,n=ds||++ms,i=bs(t),a=[],o=gs||{time:Date.now(),ease:ia,delay:0,duration:250},s=-1,l=this.length;++s<l;){a.push(e=[]);for(var c=this[s],u=-1,f=c.length;++u<f;)(r=c[u])&&_s(r,u,i,n,o),e.push(r)}return ps(a,i,n)},W.interrupt=function(t){return this.each(null==t?fs:hs(bs(t)))};var fs=hs(bs());function hs(t){return function(){var e,r,n;(e=this[t])&&(n=e[r=e.active])&&(n.timer.c=null,n.timer.t=NaN,--e.count?delete e[r]:delete this[t],e.active+=.5,n.event&&n.event.interrupt.call(this,this.__data__,n.index))}}function ps(t,e,r){return U(t,vs),t.namespace=e,t.id=r,t}var ds,gs,vs=[],ms=0;function ys(t,e,r,n){var i=t.id,a=t.namespace;return ut(t,\\\"function\\\"==typeof r?function(t,o,s){t[a][i].tween.set(e,n(r.call(t,t.__data__,o,s)))}:(r=n(r),function(t){t[a][i].tween.set(e,r)}))}function xs(t){return null==t&&(t=\\\"\\\"),function(){this.textContent=t}}function bs(t){return null==t?\\\"__transition__\\\":\\\"__transition_\\\"+t+\\\"__\\\"}function _s(t,e,r,n,i){var a,o,s,l,c,u=t[r]||(t[r]={active:0,count:0}),f=u[n];function h(r){var i=u.active,h=u[i];for(var d in h&&(h.timer.c=null,h.timer.t=NaN,--u.count,delete u[i],h.event&&h.event.interrupt.call(t,t.__data__,h.index)),u)if(+d<n){var g=u[d];g.timer.c=null,g.timer.t=NaN,--u.count,delete u[d]}o.c=p,Te(function(){return o.c&&p(r||1)&&(o.c=null,o.t=NaN),1},0,a),u.active=n,f.event&&f.event.start.call(t,t.__data__,e),c=[],f.tween.forEach(function(r,n){(n=n.call(t,t.__data__,e))&&c.push(n)}),l=f.ease,s=f.duration}function p(i){for(var a=i/s,o=l(a),h=c.length;h>0;)c[--h].call(t,o);if(a>=1)return f.event&&f.event.end.call(t,t.__data__,e),--u.count?delete u[n]:delete t[r],1}f||(a=i.time,o=Te(function(t){var e=f.delay;if(o.t=e+a,e<=t)return h(t-e);o.c=h},0,a),f=u[n]={tween:new b,time:a,timer:o,delay:i.delay,duration:i.duration,ease:i.ease,index:e},i=null,++u.count)}vs.call=W.call,vs.empty=W.empty,vs.node=W.node,vs.size=W.size,t.transition=function(e,r){return e&&e.transition?ds?e.transition(r):e:t.selection().transition(e)},t.transition.prototype=vs,vs.select=function(t){var e,r,n,i=this.id,a=this.namespace,o=[];t=X(t);for(var s=-1,l=this.length;++s<l;){o.push(e=[]);for(var c=this[s],u=-1,f=c.length;++u<f;)(n=c[u])&&(r=t.call(n,n.__data__,u,s))?(\\\"__data__\\\"in n&&(r.__data__=n.__data__),_s(r,u,a,i,n[a][i]),e.push(r)):e.push(null)}return ps(o,a,i)},vs.selectAll=function(t){var e,r,n,i,a,o=this.id,s=this.namespace,l=[];t=Z(t);for(var c=-1,u=this.length;++c<u;)for(var f=this[c],h=-1,p=f.length;++h<p;)if(n=f[h]){a=n[s][o],r=t.call(n,n.__data__,h,c),l.push(e=[]);for(var d=-1,g=r.length;++d<g;)(i=r[d])&&_s(i,d,s,o,a),e.push(i)}return ps(l,s,o)},vs.filter=function(t){var e,r,n=[];\\\"function\\\"!=typeof t&&(t=ct(t));for(var i=0,a=this.length;i<a;i++){n.push(e=[]);for(var o,s=0,l=(o=this[i]).length;s<l;s++)(r=o[s])&&t.call(r,r.__data__,s,i)&&e.push(r)}return ps(n,this.namespace,this.id)},vs.tween=function(t,e){var r=this.id,n=this.namespace;return arguments.length<2?this.node()[n][r].tween.get(t):ut(this,null==e?function(e){e[n][r].tween.remove(t)}:function(i){i[n][r].tween.set(t,e)})},vs.attr=function(e,r){if(arguments.length<2){for(r in e)this.attr(r,e[r]);return this}var n=\\\"transform\\\"==e?ga:Zi,i=t.ns.qualify(e);function a(){this.removeAttribute(i)}function o(){this.removeAttributeNS(i.space,i.local)}return ys(this,\\\"attr.\\\"+e,r,i.local?function(t){return null==t?o:(t+=\\\"\\\",function(){var e,r=this.getAttributeNS(i.space,i.local);return r!==t&&(e=n(r,t),function(t){this.setAttributeNS(i.space,i.local,e(t))})})}:function(t){return null==t?a:(t+=\\\"\\\",function(){var e,r=this.getAttribute(i);return r!==t&&(e=n(r,t),function(t){this.setAttribute(i,e(t))})})})},vs.attrTween=function(e,r){var n=t.ns.qualify(e);return this.tween(\\\"attr.\\\"+e,n.local?function(t,e){var i=r.call(this,t,e,this.getAttributeNS(n.space,n.local));return i&&function(t){this.setAttributeNS(n.space,n.local,i(t))}}:function(t,e){var i=r.call(this,t,e,this.getAttribute(n));return i&&function(t){this.setAttribute(n,i(t))}})},vs.style=function(t,e,r){var n=arguments.length;if(n<3){if(\\\"string\\\"!=typeof t){for(r in n<2&&(e=\\\"\\\"),t)this.style(r,t[r],e);return this}r=\\\"\\\"}function i(){this.style.removeProperty(t)}return ys(this,\\\"style.\\\"+t,e,function(e){return null==e?i:(e+=\\\"\\\",function(){var n,i=o(this).getComputedStyle(this,null).getPropertyValue(t);return i!==e&&(n=Zi(i,e),function(e){this.style.setProperty(t,n(e),r)})})})},vs.styleTween=function(t,e,r){return arguments.length<3&&(r=\\\"\\\"),this.tween(\\\"style.\\\"+t,function(n,i){var a=e.call(this,n,i,o(this).getComputedStyle(this,null).getPropertyValue(t));return a&&function(e){this.style.setProperty(t,a(e),r)}})},vs.text=function(t){return ys(this,\\\"text\\\",t,xs)},vs.remove=function(){var t=this.namespace;return this.each(\\\"end.transition\\\",function(){var e;this[t].count<2&&(e=this.parentNode)&&e.removeChild(this)})},vs.ease=function(e){var r=this.id,n=this.namespace;return arguments.length<1?this.node()[n][r].ease:(\\\"function\\\"!=typeof e&&(e=t.ease.apply(t,arguments)),ut(this,function(t){t[n][r].ease=e}))},vs.delay=function(t){var e=this.id,r=this.namespace;return arguments.length<1?this.node()[r][e].delay:ut(this,\\\"function\\\"==typeof t?function(n,i,a){n[r][e].delay=+t.call(n,n.__data__,i,a)}:(t=+t,function(n){n[r][e].delay=t}))},vs.duration=function(t){var e=this.id,r=this.namespace;return arguments.length<1?this.node()[r][e].duration:ut(this,\\\"function\\\"==typeof t?function(n,i,a){n[r][e].duration=Math.max(1,t.call(n,n.__data__,i,a))}:(t=Math.max(1,t),function(n){n[r][e].duration=t}))},vs.each=function(e,r){var n=this.id,i=this.namespace;if(arguments.length<2){var a=gs,o=ds;try{ds=n,ut(this,function(t,r,a){gs=t[i][n],e.call(t,t.__data__,r,a)})}finally{gs=a,ds=o}}else ut(this,function(a){var o=a[i][n];(o.event||(o.event=t.dispatch(\\\"start\\\",\\\"end\\\",\\\"interrupt\\\"))).on(e,r)});return this},vs.transition=function(){for(var t,e,r,n=this.id,i=++ms,a=this.namespace,o=[],s=0,l=this.length;s<l;s++){o.push(t=[]);for(var c,u=0,f=(c=this[s]).length;u<f;u++)(e=c[u])&&_s(e,u,a,i,{time:(r=e[a][n]).time,ease:r.ease,delay:r.delay+r.duration,duration:r.duration}),t.push(e)}return ps(o,a,i)},t.svg.axis=function(){var e,r=t.scale.linear(),i=ws,a=6,o=6,s=3,l=[10],c=null;function u(n){n.each(function(){var n,u=t.select(this),f=this.__chart__||r,h=this.__chart__=r.copy(),p=null==c?h.ticks?h.ticks.apply(h,l):h.domain():c,d=null==e?h.tickFormat?h.tickFormat.apply(h,l):z:e,g=u.selectAll(\\\".tick\\\").data(p,h),v=g.enter().insert(\\\"g\\\",\\\".domain\\\").attr(\\\"class\\\",\\\"tick\\\").style(\\\"opacity\\\",kt),m=t.transition(g.exit()).style(\\\"opacity\\\",kt).remove(),y=t.transition(g.order()).style(\\\"opacity\\\",1),x=Math.max(a,0)+s,b=uo(h),_=u.selectAll(\\\".domain\\\").data([0]),w=(_.enter().append(\\\"path\\\").attr(\\\"class\\\",\\\"domain\\\"),t.transition(_));v.append(\\\"line\\\"),v.append(\\\"text\\\");var k,T,A,M,S=v.select(\\\"line\\\"),E=y.select(\\\"line\\\"),C=g.select(\\\"text\\\").text(d),L=v.select(\\\"text\\\"),O=y.select(\\\"text\\\"),I=\\\"top\\\"===i||\\\"left\\\"===i?-1:1;if(\\\"bottom\\\"===i||\\\"top\\\"===i?(n=Ts,k=\\\"x\\\",A=\\\"y\\\",T=\\\"x2\\\",M=\\\"y2\\\",C.attr(\\\"dy\\\",I<0?\\\"0em\\\":\\\".71em\\\").style(\\\"text-anchor\\\",\\\"middle\\\"),w.attr(\\\"d\\\",\\\"M\\\"+b[0]+\\\",\\\"+I*o+\\\"V0H\\\"+b[1]+\\\"V\\\"+I*o)):(n=As,k=\\\"y\\\",A=\\\"x\\\",T=\\\"y2\\\",M=\\\"x2\\\",C.attr(\\\"dy\\\",\\\".32em\\\").style(\\\"text-anchor\\\",I<0?\\\"end\\\":\\\"start\\\"),w.attr(\\\"d\\\",\\\"M\\\"+I*o+\\\",\\\"+b[0]+\\\"H0V\\\"+b[1]+\\\"H\\\"+I*o)),S.attr(M,I*a),L.attr(A,I*x),E.attr(T,0).attr(M,I*a),O.attr(k,0).attr(A,I*x),h.rangeBand){var D=h,P=D.rangeBand()/2;f=h=function(t){return D(t)+P}}else f.rangeBand?f=h:m.call(n,h,f);v.call(n,f,h),y.call(n,h,h)})}return u.scale=function(t){return arguments.length?(r=t,u):r},u.orient=function(t){return arguments.length?(i=t in ks?t+\\\"\\\":ws,u):i},u.ticks=function(){return arguments.length?(l=n(arguments),u):l},u.tickValues=function(t){return arguments.length?(c=t,u):c},u.tickFormat=function(t){return arguments.length?(e=t,u):e},u.tickSize=function(t){var e=arguments.length;return e?(a=+t,o=+arguments[e-1],u):a},u.innerTickSize=function(t){return arguments.length?(a=+t,u):a},u.outerTickSize=function(t){return arguments.length?(o=+t,u):o},u.tickPadding=function(t){return arguments.length?(s=+t,u):s},u.tickSubdivide=function(){return arguments.length&&u},u};var ws=\\\"bottom\\\",ks={top:1,right:1,bottom:1,left:1};function Ts(t,e,r){t.attr(\\\"transform\\\",function(t){var n=e(t);return\\\"translate(\\\"+(isFinite(n)?n:r(t))+\\\",0)\\\"})}function As(t,e,r){t.attr(\\\"transform\\\",function(t){var n=e(t);return\\\"translate(0,\\\"+(isFinite(n)?n:r(t))+\\\")\\\"})}t.svg.brush=function(){var e,r,n=j(h,\\\"brushstart\\\",\\\"brush\\\",\\\"brushend\\\"),i=null,a=null,s=[0,0],l=[0,0],c=!0,u=!0,f=Ss[0];function h(e){e.each(function(){var e=t.select(this).style(\\\"pointer-events\\\",\\\"all\\\").style(\\\"-webkit-tap-highlight-color\\\",\\\"rgba(0,0,0,0)\\\").on(\\\"mousedown.brush\\\",v).on(\\\"touchstart.brush\\\",v),r=e.selectAll(\\\".background\\\").data([0]);r.enter().append(\\\"rect\\\").attr(\\\"class\\\",\\\"background\\\").style(\\\"visibility\\\",\\\"hidden\\\").style(\\\"cursor\\\",\\\"crosshair\\\"),e.selectAll(\\\".extent\\\").data([0]).enter().append(\\\"rect\\\").attr(\\\"class\\\",\\\"extent\\\").style(\\\"cursor\\\",\\\"move\\\");var n=e.selectAll(\\\".resize\\\").data(f,z);n.exit().remove(),n.enter().append(\\\"g\\\").attr(\\\"class\\\",function(t){return\\\"resize \\\"+t}).style(\\\"cursor\\\",function(t){return Ms[t]}).append(\\\"rect\\\").attr(\\\"x\\\",function(t){return/[ew]$/.test(t)?-3:null}).attr(\\\"y\\\",function(t){return/^[ns]/.test(t)?-3:null}).attr(\\\"width\\\",6).attr(\\\"height\\\",6).style(\\\"visibility\\\",\\\"hidden\\\"),n.style(\\\"display\\\",h.empty()?\\\"none\\\":null);var o,s=t.transition(e),l=t.transition(r);i&&(o=uo(i),l.attr(\\\"x\\\",o[0]).attr(\\\"width\\\",o[1]-o[0]),d(s)),a&&(o=uo(a),l.attr(\\\"y\\\",o[0]).attr(\\\"height\\\",o[1]-o[0]),g(s)),p(s)})}function p(t){t.selectAll(\\\".resize\\\").attr(\\\"transform\\\",function(t){return\\\"translate(\\\"+s[+/e$/.test(t)]+\\\",\\\"+l[+/^s/.test(t)]+\\\")\\\"})}function d(t){t.select(\\\".extent\\\").attr(\\\"x\\\",s[0]),t.selectAll(\\\".extent,.n>rect,.s>rect\\\").attr(\\\"width\\\",s[1]-s[0])}function g(t){t.select(\\\".extent\\\").attr(\\\"y\\\",l[0]),t.selectAll(\\\".extent,.e>rect,.w>rect\\\").attr(\\\"height\\\",l[1]-l[0])}function v(){var f,v,m=this,y=t.select(t.event.target),x=n.of(m,arguments),b=t.select(m),_=y.datum(),w=!/^(n|s)$/.test(_)&&i,k=!/^(e|w)$/.test(_)&&a,T=y.classed(\\\"extent\\\"),A=xt(m),M=t.mouse(m),S=t.select(o(m)).on(\\\"keydown.brush\\\",function(){32==t.event.keyCode&&(T||(f=null,M[0]-=s[1],M[1]-=l[1],T=2),B())}).on(\\\"keyup.brush\\\",function(){32==t.event.keyCode&&2==T&&(M[0]+=s[1],M[1]+=l[1],T=0,B())});if(t.event.changedTouches?S.on(\\\"touchmove.brush\\\",L).on(\\\"touchend.brush\\\",O):S.on(\\\"mousemove.brush\\\",L).on(\\\"mouseup.brush\\\",O),b.interrupt().selectAll(\\\"*\\\").interrupt(),T)M[0]=s[0]-M[0],M[1]=l[0]-M[1];else if(_){var E=+/w$/.test(_),C=+/^n/.test(_);v=[s[1-E]-M[0],l[1-C]-M[1]],M[0]=s[E],M[1]=l[C]}else t.event.altKey&&(f=M.slice());function L(){var e=t.mouse(m),r=!1;v&&(e[0]+=v[0],e[1]+=v[1]),T||(t.event.altKey?(f||(f=[(s[0]+s[1])/2,(l[0]+l[1])/2]),M[0]=s[+(e[0]<f[0])],M[1]=l[+(e[1]<f[1])]):f=null),w&&z(e,i,0)&&(d(b),r=!0),k&&z(e,a,1)&&(g(b),r=!0),r&&(p(b),x({type:\\\"brush\\\",mode:T?\\\"move\\\":\\\"resize\\\"}))}function z(t,n,i){var a,o,h=uo(n),p=h[0],d=h[1],g=M[i],v=i?l:s,m=v[1]-v[0];if(T&&(p-=g,d-=m+g),a=(i?u:c)?Math.max(p,Math.min(d,t[i])):t[i],T?o=(a+=g)+m:(f&&(g=Math.max(p,Math.min(d,2*f[i]-a))),g<a?(o=a,a=g):o=g),v[0]!=a||v[1]!=o)return i?r=null:e=null,v[0]=a,v[1]=o,!0}function O(){L(),b.style(\\\"pointer-events\\\",\\\"all\\\").selectAll(\\\".resize\\\").style(\\\"display\\\",h.empty()?\\\"none\\\":null),t.select(\\\"body\\\").style(\\\"cursor\\\",null),S.on(\\\"mousemove.brush\\\",null).on(\\\"mouseup.brush\\\",null).on(\\\"touchmove.brush\\\",null).on(\\\"touchend.brush\\\",null).on(\\\"keydown.brush\\\",null).on(\\\"keyup.brush\\\",null),A(),x({type:\\\"brushend\\\"})}b.style(\\\"pointer-events\\\",\\\"none\\\").selectAll(\\\".resize\\\").style(\\\"display\\\",null),t.select(\\\"body\\\").style(\\\"cursor\\\",y.style(\\\"cursor\\\")),x({type:\\\"brushstart\\\"}),L()}return h.event=function(i){i.each(function(){var i=n.of(this,arguments),a={x:s,y:l,i:e,j:r},o=this.__chart__||a;this.__chart__=a,ds?t.select(this).transition().each(\\\"start.brush\\\",function(){e=o.i,r=o.j,s=o.x,l=o.y,i({type:\\\"brushstart\\\"})}).tween(\\\"brush:brush\\\",function(){var t=$i(s,a.x),n=$i(l,a.y);return e=r=null,function(e){s=a.x=t(e),l=a.y=n(e),i({type:\\\"brush\\\",mode:\\\"resize\\\"})}}).each(\\\"end.brush\\\",function(){e=a.i,r=a.j,i({type:\\\"brush\\\",mode:\\\"resize\\\"}),i({type:\\\"brushend\\\"})}):(i({type:\\\"brushstart\\\"}),i({type:\\\"brush\\\",mode:\\\"resize\\\"}),i({type:\\\"brushend\\\"}))})},h.x=function(t){return arguments.length?(f=Ss[!(i=t)<<1|!a],h):i},h.y=function(t){return arguments.length?(f=Ss[!i<<1|!(a=t)],h):a},h.clamp=function(t){return arguments.length?(i&&a?(c=!!t[0],u=!!t[1]):i?c=!!t:a&&(u=!!t),h):i&&a?[c,u]:i?c:a?u:null},h.extent=function(t){var n,o,c,u,f;return arguments.length?(i&&(n=t[0],o=t[1],a&&(n=n[0],o=o[0]),e=[n,o],i.invert&&(n=i(n),o=i(o)),o<n&&(f=n,n=o,o=f),n==s[0]&&o==s[1]||(s=[n,o])),a&&(c=t[0],u=t[1],i&&(c=c[1],u=u[1]),r=[c,u],a.invert&&(c=a(c),u=a(u)),u<c&&(f=c,c=u,u=f),c==l[0]&&u==l[1]||(l=[c,u])),h):(i&&(e?(n=e[0],o=e[1]):(n=s[0],o=s[1],i.invert&&(n=i.invert(n),o=i.invert(o)),o<n&&(f=n,n=o,o=f))),a&&(r?(c=r[0],u=r[1]):(c=l[0],u=l[1],a.invert&&(c=a.invert(c),u=a.invert(u)),u<c&&(f=c,c=u,u=f))),i&&a?[[n,c],[o,u]]:i?[n,o]:a&&[c,u])},h.clear=function(){return h.empty()||(s=[0,0],l=[0,0],e=r=null),h},h.empty=function(){return!!i&&s[0]==s[1]||!!a&&l[0]==l[1]},t.rebind(h,n,\\\"on\\\")};var Ms={n:\\\"ns-resize\\\",e:\\\"ew-resize\\\",s:\\\"ns-resize\\\",w:\\\"ew-resize\\\",nw:\\\"nwse-resize\\\",ne:\\\"nesw-resize\\\",se:\\\"nwse-resize\\\",sw:\\\"nesw-resize\\\"},Ss=[[\\\"n\\\",\\\"e\\\",\\\"s\\\",\\\"w\\\",\\\"nw\\\",\\\"ne\\\",\\\"se\\\",\\\"sw\\\"],[\\\"e\\\",\\\"w\\\"],[\\\"n\\\",\\\"s\\\"],[]],Es=Ie.format=sr.timeFormat,Cs=Es.utc,Ls=Cs(\\\"%Y-%m-%dT%H:%M:%S.%LZ\\\");function zs(t){return t.toISOString()}function Os(e,r,n){function i(t){return e(t)}function a(e,n){var i=(e[1]-e[0])/n,a=t.bisect(Ds,i);return a==Ds.length?[r.year,xo(e.map(function(t){return t/31536e6}),n)[2]]:a?r[i/Ds[a-1]<Ds[a]/i?a-1:a]:[Fs,xo(e,n)[2]]}return i.invert=function(t){return Is(e.invert(t))},i.domain=function(t){return arguments.length?(e.domain(t),i):e.domain().map(Is)},i.nice=function(t,e){var r=i.domain(),n=co(r),o=null==t?a(n,10):\\\"number\\\"==typeof t&&a(n,t);function s(r){return!isNaN(r)&&!t.range(r,Is(+r+1),e).length}return o&&(t=o[0],e=o[1]),i.domain(ho(r,e>1?{floor:function(e){for(;s(e=t.floor(e));)e=Is(e-1);return e},ceil:function(e){for(;s(e=t.ceil(e));)e=Is(+e+1);return e}}:t))},i.ticks=function(t,e){var r=co(i.domain()),n=null==t?a(r,10):\\\"number\\\"==typeof t?a(r,t):!t.range&&[{range:t},e];return n&&(t=n[0],e=n[1]),t.range(r[0],Is(+r[1]+1),e<1?1:e)},i.tickFormat=function(){return n},i.copy=function(){return Os(e.copy(),r,n)},mo(i,e)}function Is(t){return new Date(t)}Es.iso=Date.prototype.toISOString&&+new Date(\\\"2000-01-01T00:00:00.000Z\\\")?zs:Ls,zs.parse=function(t){var e=new Date(t);return isNaN(e)?null:e},zs.toString=Ls.toString,Ie.second=Fe(function(t){return new De(1e3*Math.floor(t/1e3))},function(t,e){t.setTime(t.getTime()+1e3*Math.floor(e))},function(t){return t.getSeconds()}),Ie.seconds=Ie.second.range,Ie.seconds.utc=Ie.second.utc.range,Ie.minute=Fe(function(t){return new De(6e4*Math.floor(t/6e4))},function(t,e){t.setTime(t.getTime()+6e4*Math.floor(e))},function(t){return t.getMinutes()}),Ie.minutes=Ie.minute.range,Ie.minutes.utc=Ie.minute.utc.range,Ie.hour=Fe(function(t){var e=t.getTimezoneOffset()/60;return new De(36e5*(Math.floor(t/36e5-e)+e))},function(t,e){t.setTime(t.getTime()+36e5*Math.floor(e))},function(t){return t.getHours()}),Ie.hours=Ie.hour.range,Ie.hours.utc=Ie.hour.utc.range,Ie.month=Fe(function(t){return(t=Ie.day(t)).setDate(1),t},function(t,e){t.setMonth(t.getMonth()+e)},function(t){return t.getMonth()}),Ie.months=Ie.month.range,Ie.months.utc=Ie.month.utc.range;var Ds=[1e3,5e3,15e3,3e4,6e4,3e5,9e5,18e5,36e5,108e5,216e5,432e5,864e5,1728e5,6048e5,2592e6,7776e6,31536e6],Ps=[[Ie.second,1],[Ie.second,5],[Ie.second,15],[Ie.second,30],[Ie.minute,1],[Ie.minute,5],[Ie.minute,15],[Ie.minute,30],[Ie.hour,1],[Ie.hour,3],[Ie.hour,6],[Ie.hour,12],[Ie.day,1],[Ie.day,2],[Ie.week,1],[Ie.month,1],[Ie.month,3],[Ie.year,1]],Rs=Es.multi([[\\\".%L\\\",function(t){return t.getMilliseconds()}],[\\\":%S\\\",function(t){return t.getSeconds()}],[\\\"%I:%M\\\",function(t){return t.getMinutes()}],[\\\"%I %p\\\",function(t){return t.getHours()}],[\\\"%a %d\\\",function(t){return t.getDay()&&1!=t.getDate()}],[\\\"%b %d\\\",function(t){return 1!=t.getDate()}],[\\\"%B\\\",function(t){return t.getMonth()}],[\\\"%Y\\\",Yr]]),Fs={range:function(e,r,n){return t.range(Math.ceil(e/n)*n,+r,n).map(Is)},floor:z,ceil:z};Ps.year=Ie.year,Ie.scale=function(){return Os(t.scale.linear(),Ps,Rs)};var Bs=Ps.map(function(t){return[t[0].utc,t[1]]}),Ns=Cs.multi([[\\\".%L\\\",function(t){return t.getUTCMilliseconds()}],[\\\":%S\\\",function(t){return t.getUTCSeconds()}],[\\\"%I:%M\\\",function(t){return t.getUTCMinutes()}],[\\\"%I %p\\\",function(t){return t.getUTCHours()}],[\\\"%a %d\\\",function(t){return t.getUTCDay()&&1!=t.getUTCDate()}],[\\\"%b %d\\\",function(t){return 1!=t.getUTCDate()}],[\\\"%B\\\",function(t){return t.getUTCMonth()}],[\\\"%Y\\\",Yr]]);function js(t){return JSON.parse(t.responseText)}function Vs(t){var e=i.createRange();return e.selectNode(i.body),e.createContextualFragment(t.responseText)}Bs.year=Ie.year.utc,Ie.scale.utc=function(){return Os(t.scale.linear(),Bs,Ns)},t.text=me(function(t){return t.responseText}),t.json=function(t,e){return ye(t,\\\"application/json\\\",js,e)},t.html=function(t,e){return ye(t,\\\"text/html\\\",Vs,e)},t.xml=me(function(t){return t.responseXML}),\\\"object\\\"==typeof e&&e.exports?e.exports=t:this.d3=t}()},{}],158:[function(t,e,r){e.exports=function(){for(var t=0;t<arguments.length;t++)if(void 0!==arguments[t])return arguments[t]}},{}],159:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"incremental-convex-hull\\\"),i=t(\\\"uniq\\\");function a(t,e){this.point=t,this.index=e}function o(t,e){for(var r=t.point,n=e.point,i=r.length,a=0;a<i;++a){var o=n[a]-r[a];if(o)return o}return 0}e.exports=function(t,e){var r=t.length;if(0===r)return[];var s=t[0].length;if(s<1)return[];if(1===s)return function(t,e,r){if(1===t)return r?[[-1,0]]:[];var n=e.map(function(t,e){return[t[0],e]});n.sort(function(t,e){return t[0]-e[0]});for(var i=new Array(t-1),a=1;a<t;++a){var o=n[a-1],s=n[a];i[a-1]=[o[1],s[1]]}r&&i.push([-1,i[0][1]],[i[t-1][1],-1]);return i}(r,t,e);for(var l=new Array(r),c=1,u=0;u<r;++u){for(var f=t[u],h=new Array(s+1),p=0,d=0;d<s;++d){var g=f[d];h[d]=g,p+=g*g}h[s]=p,l[u]=new a(h,u),c=Math.max(p,c)}i(l,o),r=l.length;for(var v=new Array(r+s+1),m=new Array(r+s+1),y=(s+1)*(s+1)*c,x=new Array(s+1),u=0;u<=s;++u)x[u]=0;x[s]=y,v[0]=x.slice(),m[0]=-1;for(var u=0;u<=s;++u){var h=x.slice();h[u]=1,v[u+1]=h,m[u+1]=-1}for(var u=0;u<r;++u){var b=l[u];v[u+s+1]=b.point,m[u+s+1]=b.index}var _=n(v,!1);_=e?_.filter(function(t){for(var e=0,r=0;r<=s;++r){var n=m[t[r]];if(n<0&&++e>=2)return!1;t[r]=n}return!0}):_.filter(function(t){for(var e=0;e<=s;++e){var r=m[t[e]];if(r<0)return!1;t[e]=r}return!0});if(1&s)for(var u=0;u<_.length;++u){var b=_[u],h=b[0];b[0]=b[1],b[1]=h}return _}},{\\\"incremental-convex-hull\\\":408,uniq:534}],160:[function(t,e,r){\\\"use strict\\\";e.exports=a;var n=(a.canvas=document.createElement(\\\"canvas\\\")).getContext(\\\"2d\\\"),i=o([32,126]);function a(t,e){Array.isArray(t)&&(t=t.join(\\\", \\\"));var r,a={},s=16,l=.05;e&&(2===e.length&&\\\"number\\\"==typeof e[0]?r=o(e):Array.isArray(e)?r=e:(e.o?r=o(e.o):e.pairs&&(r=e.pairs),e.fontSize&&(s=e.fontSize),null!=e.threshold&&(l=e.threshold))),r||(r=i),n.font=s+\\\"px \\\"+t;for(var c=0;c<r.length;c++){var u=r[c],f=n.measureText(u[0]).width+n.measureText(u[1]).width,h=n.measureText(u).width;if(Math.abs(f-h)>s*l){var p=(h-f)/s;a[u]=1e3*p}}return a}function o(t){for(var e=[],r=t[0];r<=t[1];r++)for(var n=String.fromCharCode(r),i=t[0];i<t[1];i++){var a=n+String.fromCharCode(i);e.push(a)}return e}a.createPairs=o,a.ascii=i},{}],161:[function(t,e,r){(function(t){var r=!1;if(\\\"undefined\\\"!=typeof Float64Array){var n=new Float64Array(1),i=new Uint32Array(n.buffer);if(n[0]=1,r=!0,1072693248===i[1]){e.exports=function(t){return n[0]=t,[i[0],i[1]]},e.exports.pack=function(t,e){return i[0]=t,i[1]=e,n[0]},e.exports.lo=function(t){return n[0]=t,i[0]},e.exports.hi=function(t){return n[0]=t,i[1]}}else if(1072693248===i[0]){e.exports=function(t){return n[0]=t,[i[1],i[0]]},e.exports.pack=function(t,e){return i[1]=t,i[0]=e,n[0]},e.exports.lo=function(t){return n[0]=t,i[1]},e.exports.hi=function(t){return n[0]=t,i[0]}}else r=!1}if(!r){var a=new t(8);e.exports=function(t){return a.writeDoubleLE(t,0,!0),[a.readUInt32LE(0,!0),a.readUInt32LE(4,!0)]},e.exports.pack=function(t,e){return a.writeUInt32LE(t,0,!0),a.writeUInt32LE(e,4,!0),a.readDoubleLE(0,!0)},e.exports.lo=function(t){return a.writeDoubleLE(t,0,!0),a.readUInt32LE(0,!0)},e.exports.hi=function(t){return a.writeDoubleLE(t,0,!0),a.readUInt32LE(4,!0)}}e.exports.sign=function(t){return e.exports.hi(t)>>>31},e.exports.exponent=function(t){return(e.exports.hi(t)<<1>>>21)-1023},e.exports.fraction=function(t){var r=e.exports.lo(t),n=e.exports.hi(t),i=1048575&n;return 2146435072&n&&(i+=1<<20),[r,i]},e.exports.denormalized=function(t){return!(2146435072&e.exports.hi(t))}}).call(this,t(\\\"buffer\\\").Buffer)},{buffer:98}],162:[function(t,e,r){var n=t(\\\"abs-svg-path\\\"),i=t(\\\"normalize-svg-path\\\"),a={M:\\\"moveTo\\\",C:\\\"bezierCurveTo\\\"};e.exports=function(t,e){t.beginPath(),i(n(e)).forEach(function(e){var r=e[0],n=e.slice(1);t[a[r]].apply(t,n)}),t.closePath()}},{\\\"abs-svg-path\\\":53,\\\"normalize-svg-path\\\":447}],163:[function(t,e,r){e.exports=function(t){switch(t){case\\\"int8\\\":return Int8Array;case\\\"int16\\\":return Int16Array;case\\\"int32\\\":return Int32Array;case\\\"uint8\\\":return Uint8Array;case\\\"uint16\\\":return Uint16Array;case\\\"uint32\\\":return Uint32Array;case\\\"float32\\\":return Float32Array;case\\\"float64\\\":return Float64Array;case\\\"array\\\":return Array;case\\\"uint8_clamped\\\":return Uint8ClampedArray}}},{}],164:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){switch(\\\"undefined\\\"==typeof e&&(e=0),typeof t){case\\\"number\\\":if(t>0)return function(t,e){var r,n;for(r=new Array(t),n=0;n<t;++n)r[n]=e;return r}(0|t,e);break;case\\\"object\\\":if(\\\"number\\\"==typeof t.length)return function t(e,r,n){var i=0|e[n];if(i<=0)return[];var a,o=new Array(i);if(n===e.length-1)for(a=0;a<i;++a)o[a]=r;else for(a=0;a<i;++a)o[a]=t(e,r,n+1);return o}(t,e,0)}return[]}},{}],165:[function(t,e,r){\\\"use strict\\\";function n(t,e,r){r=r||2;var n,s,l,c,u,p,g,v=e&&e.length,m=v?e[0]*r:t.length,y=i(t,0,m,r,!0),x=[];if(!y)return x;if(v&&(y=function(t,e,r,n){var o,s,l,c,u,p=[];for(o=0,s=e.length;o<s;o++)l=e[o]*n,c=o<s-1?e[o+1]*n:t.length,(u=i(t,l,c,n,!1))===u.next&&(u.steiner=!0),p.push(d(u));for(p.sort(f),o=0;o<p.length;o++)h(p[o],r),r=a(r,r.next);return r}(t,e,y,r)),t.length>80*r){n=l=t[0],s=c=t[1];for(var b=r;b<m;b+=r)(u=t[b])<n&&(n=u),(p=t[b+1])<s&&(s=p),u>l&&(l=u),p>c&&(c=p);g=0!==(g=Math.max(l-n,c-s))?1/g:0}return o(y,x,r,n,s,g),x}function i(t,e,r,n,i){var a,o;if(i===A(t,e,r,n)>0)for(a=e;a<r;a+=n)o=w(a,t[a],t[a+1],o);else for(a=r-n;a>=e;a-=n)o=w(a,t[a],t[a+1],o);return o&&y(o,o.next)&&(k(o),o=o.next),o}function a(t,e){if(!t)return t;e||(e=t);var r,n=t;do{if(r=!1,n.steiner||!y(n,n.next)&&0!==m(n.prev,n,n.next))n=n.next;else{if(k(n),(n=e=n.prev)===n.next)break;r=!0}}while(r||n!==e);return e}function o(t,e,r,n,i,f,h){if(t){!h&&f&&function(t,e,r,n){var i=t;do{null===i.z&&(i.z=p(i.x,i.y,e,r,n)),i.prevZ=i.prev,i.nextZ=i.next,i=i.next}while(i!==t);i.prevZ.nextZ=null,i.prevZ=null,function(t){var e,r,n,i,a,o,s,l,c=1;do{for(r=t,t=null,a=null,o=0;r;){for(o++,n=r,s=0,e=0;e<c&&(s++,n=n.nextZ);e++);for(l=c;s>0||l>0&&n;)0!==s&&(0===l||!n||r.z<=n.z)?(i=r,r=r.nextZ,s--):(i=n,n=n.nextZ,l--),a?a.nextZ=i:t=i,i.prevZ=a,a=i;r=n}a.nextZ=null,c*=2}while(o>1)}(i)}(t,n,i,f);for(var d,g,v=t;t.prev!==t.next;)if(d=t.prev,g=t.next,f?l(t,n,i,f):s(t))e.push(d.i/r),e.push(t.i/r),e.push(g.i/r),k(t),t=g.next,v=g.next;else if((t=g)===v){h?1===h?o(t=c(t,e,r),e,r,n,i,f,2):2===h&&u(t,e,r,n,i,f):o(a(t),e,r,n,i,f,1);break}}}function s(t){var e=t.prev,r=t,n=t.next;if(m(e,r,n)>=0)return!1;for(var i=t.next.next;i!==t.prev;){if(g(e.x,e.y,r.x,r.y,n.x,n.y,i.x,i.y)&&m(i.prev,i,i.next)>=0)return!1;i=i.next}return!0}function l(t,e,r,n){var i=t.prev,a=t,o=t.next;if(m(i,a,o)>=0)return!1;for(var s=i.x<a.x?i.x<o.x?i.x:o.x:a.x<o.x?a.x:o.x,l=i.y<a.y?i.y<o.y?i.y:o.y:a.y<o.y?a.y:o.y,c=i.x>a.x?i.x>o.x?i.x:o.x:a.x>o.x?a.x:o.x,u=i.y>a.y?i.y>o.y?i.y:o.y:a.y>o.y?a.y:o.y,f=p(s,l,e,r,n),h=p(c,u,e,r,n),d=t.prevZ,v=t.nextZ;d&&d.z>=f&&v&&v.z<=h;){if(d!==t.prev&&d!==t.next&&g(i.x,i.y,a.x,a.y,o.x,o.y,d.x,d.y)&&m(d.prev,d,d.next)>=0)return!1;if(d=d.prevZ,v!==t.prev&&v!==t.next&&g(i.x,i.y,a.x,a.y,o.x,o.y,v.x,v.y)&&m(v.prev,v,v.next)>=0)return!1;v=v.nextZ}for(;d&&d.z>=f;){if(d!==t.prev&&d!==t.next&&g(i.x,i.y,a.x,a.y,o.x,o.y,d.x,d.y)&&m(d.prev,d,d.next)>=0)return!1;d=d.prevZ}for(;v&&v.z<=h;){if(v!==t.prev&&v!==t.next&&g(i.x,i.y,a.x,a.y,o.x,o.y,v.x,v.y)&&m(v.prev,v,v.next)>=0)return!1;v=v.nextZ}return!0}function c(t,e,r){var n=t;do{var i=n.prev,a=n.next.next;!y(i,a)&&x(i,n,n.next,a)&&b(i,a)&&b(a,i)&&(e.push(i.i/r),e.push(n.i/r),e.push(a.i/r),k(n),k(n.next),n=t=a),n=n.next}while(n!==t);return n}function u(t,e,r,n,i,s){var l=t;do{for(var c=l.next.next;c!==l.prev;){if(l.i!==c.i&&v(l,c)){var u=_(l,c);return l=a(l,l.next),u=a(u,u.next),o(l,e,r,n,i,s),void o(u,e,r,n,i,s)}c=c.next}l=l.next}while(l!==t)}function f(t,e){return t.x-e.x}function h(t,e){if(e=function(t,e){var r,n=e,i=t.x,a=t.y,o=-1/0;do{if(a<=n.y&&a>=n.next.y&&n.next.y!==n.y){var s=n.x+(a-n.y)*(n.next.x-n.x)/(n.next.y-n.y);if(s<=i&&s>o){if(o=s,s===i){if(a===n.y)return n;if(a===n.next.y)return n.next}r=n.x<n.next.x?n:n.next}}n=n.next}while(n!==e);if(!r)return null;if(i===o)return r.prev;var l,c=r,u=r.x,f=r.y,h=1/0;n=r.next;for(;n!==c;)i>=n.x&&n.x>=u&&i!==n.x&&g(a<f?i:o,a,u,f,a<f?o:i,a,n.x,n.y)&&((l=Math.abs(a-n.y)/(i-n.x))<h||l===h&&n.x>r.x)&&b(n,t)&&(r=n,h=l),n=n.next;return r}(t,e)){var r=_(e,t);a(r,r.next)}}function p(t,e,r,n,i){return(t=1431655765&((t=858993459&((t=252645135&((t=16711935&((t=32767*(t-r)*i)|t<<8))|t<<4))|t<<2))|t<<1))|(e=1431655765&((e=858993459&((e=252645135&((e=16711935&((e=32767*(e-n)*i)|e<<8))|e<<4))|e<<2))|e<<1))<<1}function d(t){var e=t,r=t;do{e.x<r.x&&(r=e),e=e.next}while(e!==t);return r}function g(t,e,r,n,i,a,o,s){return(i-o)*(e-s)-(t-o)*(a-s)>=0&&(t-o)*(n-s)-(r-o)*(e-s)>=0&&(r-o)*(a-s)-(i-o)*(n-s)>=0}function v(t,e){return t.next.i!==e.i&&t.prev.i!==e.i&&!function(t,e){var r=t;do{if(r.i!==t.i&&r.next.i!==t.i&&r.i!==e.i&&r.next.i!==e.i&&x(r,r.next,t,e))return!0;r=r.next}while(r!==t);return!1}(t,e)&&b(t,e)&&b(e,t)&&function(t,e){var r=t,n=!1,i=(t.x+e.x)/2,a=(t.y+e.y)/2;do{r.y>a!=r.next.y>a&&r.next.y!==r.y&&i<(r.next.x-r.x)*(a-r.y)/(r.next.y-r.y)+r.x&&(n=!n),r=r.next}while(r!==t);return n}(t,e)}function m(t,e,r){return(e.y-t.y)*(r.x-e.x)-(e.x-t.x)*(r.y-e.y)}function y(t,e){return t.x===e.x&&t.y===e.y}function x(t,e,r,n){return!!(y(t,e)&&y(r,n)||y(t,n)&&y(r,e))||m(t,e,r)>0!=m(t,e,n)>0&&m(r,n,t)>0!=m(r,n,e)>0}function b(t,e){return m(t.prev,t,t.next)<0?m(t,e,t.next)>=0&&m(t,t.prev,e)>=0:m(t,e,t.prev)<0||m(t,t.next,e)<0}function _(t,e){var r=new T(t.i,t.x,t.y),n=new T(e.i,e.x,e.y),i=t.next,a=e.prev;return t.next=e,e.prev=t,r.next=i,i.prev=r,n.next=r,r.prev=n,a.next=n,n.prev=a,n}function w(t,e,r,n){var i=new T(t,e,r);return n?(i.next=n.next,i.prev=n,n.next.prev=i,n.next=i):(i.prev=i,i.next=i),i}function k(t){t.next.prev=t.prev,t.prev.next=t.next,t.prevZ&&(t.prevZ.nextZ=t.nextZ),t.nextZ&&(t.nextZ.prevZ=t.prevZ)}function T(t,e,r){this.i=t,this.x=e,this.y=r,this.prev=null,this.next=null,this.z=null,this.prevZ=null,this.nextZ=null,this.steiner=!1}function A(t,e,r,n){for(var i=0,a=e,o=r-n;a<r;a+=n)i+=(t[o]-t[a])*(t[a+1]+t[o+1]),o=a;return i}e.exports=n,e.exports.default=n,n.deviation=function(t,e,r,n){var i=e&&e.length,a=i?e[0]*r:t.length,o=Math.abs(A(t,0,a,r));if(i)for(var s=0,l=e.length;s<l;s++){var c=e[s]*r,u=s<l-1?e[s+1]*r:t.length;o-=Math.abs(A(t,c,u,r))}var f=0;for(s=0;s<n.length;s+=3){var h=n[s]*r,p=n[s+1]*r,d=n[s+2]*r;f+=Math.abs((t[h]-t[d])*(t[p+1]-t[h+1])-(t[h]-t[p])*(t[d+1]-t[h+1]))}return 0===o&&0===f?0:Math.abs((f-o)/o)},n.flatten=function(t){for(var e=t[0][0].length,r={vertices:[],holes:[],dimensions:e},n=0,i=0;i<t.length;i++){for(var a=0;a<t[i].length;a++)for(var o=0;o<e;o++)r.vertices.push(t[i][a][o]);i>0&&(n+=t[i-1].length,r.holes.push(n))}return r}},{}],166:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){var r=t.length;if(\\\"number\\\"!=typeof e){e=0;for(var i=0;i<r;++i){var a=t[i];e=Math.max(e,a[0],a[1])}e=1+(0|e)}e|=0;for(var o=new Array(e),i=0;i<e;++i)o[i]=[];for(var i=0;i<r;++i){var a=t[i];o[a[0]].push(a[1]),o[a[1]].push(a[0])}for(var s=0;s<e;++s)n(o[s],function(t,e){return t-e});return o};var n=t(\\\"uniq\\\")},{uniq:534}],167:[function(t,e,r){var n=t(\\\"strongly-connected-components\\\");e.exports=function(t){var e,r=[],i=[],a=[],o={},s=[];function l(t){var r,n,u=!1;for(i.push(t),a[t]=!0,r=0;r<s[t].length;r++)(n=s[t][r])===e?(c(e,i),u=!0):a[n]||(u=l(n));if(u)!function t(e){a[e]=!1,o.hasOwnProperty(e)&&Object.keys(o[e]).forEach(function(r){delete o[e][r],a[r]&&t(r)})}(t);else for(r=0;r<s[t].length;r++){n=s[t][r];var f=o[n];f||(f={},o[n]=f),f[n]=!0}return i.pop(),u}function c(t,e){var n=[].concat(e).concat(t);r.push(n)}function u(e){!function(e){for(var r=0;r<t.length;r++)r<e&&(t[r]=[]),t[r]=t[r].filter(function(t){return t>=e})}(e);for(var r,i=n(t).components.filter(function(t){return t.length>1}),a=1/0,o=0;o<i.length;o++)for(var s=0;s<i[o].length;s++)i[o][s]<a&&(a=i[o][s],r=o);var l=i[r];return!!l&&{leastVertex:a,adjList:t.map(function(t,e){return-1===l.indexOf(e)?[]:t.filter(function(t){return-1!==l.indexOf(t)})})}}e=0;for(var f=t.length;e<f;){var h=u(e);if(e=h.leastVertex,s=h.adjList){for(var p=0;p<s.length;p++)for(var d=0;d<s[p].length;d++){var g=s[p][d];a[+g]=!1,o[g]={}}l(e),e+=1}else e=f}return r}},{\\\"strongly-connected-components\\\":517}],168:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../object/valid-value\\\");e.exports=function(){return n(this).length=0,this}},{\\\"../../object/valid-value\\\":200}],169:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"./is-implemented\\\")()?Array.from:t(\\\"./shim\\\")},{\\\"./is-implemented\\\":170,\\\"./shim\\\":171}],170:[function(t,e,r){\\\"use strict\\\";e.exports=function(){var t,e,r=Array.from;return\\\"function\\\"==typeof r&&(e=r(t=[\\\"raz\\\",\\\"dwa\\\"]),Boolean(e&&e!==t&&\\\"dwa\\\"===e[1]))}},{}],171:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"es6-symbol\\\").iterator,i=t(\\\"../../function/is-arguments\\\"),a=t(\\\"../../function/is-function\\\"),o=t(\\\"../../number/to-pos-integer\\\"),s=t(\\\"../../object/valid-callable\\\"),l=t(\\\"../../object/valid-value\\\"),c=t(\\\"../../object/is-value\\\"),u=t(\\\"../../string/is-string\\\"),f=Array.isArray,h=Function.prototype.call,p={configurable:!0,enumerable:!0,writable:!0,value:null},d=Object.defineProperty;e.exports=function(t){var e,r,g,v,m,y,x,b,_,w,k=arguments[1],T=arguments[2];if(t=Object(l(t)),c(k)&&s(k),this&&this!==Array&&a(this))e=this;else{if(!k){if(i(t))return 1!==(m=t.length)?Array.apply(null,t):((v=new Array(1))[0]=t[0],v);if(f(t)){for(v=new Array(m=t.length),r=0;r<m;++r)v[r]=t[r];return v}}v=[]}if(!f(t))if(void 0!==(_=t[n])){for(x=s(_).call(t),e&&(v=new e),b=x.next(),r=0;!b.done;)w=k?h.call(k,T,b.value,r):b.value,e?(p.value=w,d(v,r,p)):v[r]=w,b=x.next(),++r;m=r}else if(u(t)){for(m=t.length,e&&(v=new e),r=0,g=0;r<m;++r)w=t[r],r+1<m&&(y=w.charCodeAt(0))>=55296&&y<=56319&&(w+=t[++r]),w=k?h.call(k,T,w,g):w,e?(p.value=w,d(v,g,p)):v[g]=w,++g;m=g}if(void 0===m)for(m=o(t.length),e&&(v=new e(m)),r=0;r<m;++r)w=k?h.call(k,T,t[r],r):t[r],e?(p.value=w,d(v,r,p)):v[r]=w;return e&&(p.value=null,v.length=m),v}},{\\\"../../function/is-arguments\\\":172,\\\"../../function/is-function\\\":173,\\\"../../number/to-pos-integer\\\":179,\\\"../../object/is-value\\\":189,\\\"../../object/valid-callable\\\":198,\\\"../../object/valid-value\\\":200,\\\"../../string/is-string\\\":204,\\\"es6-symbol\\\":214}],172:[function(t,e,r){\\\"use strict\\\";var n=Object.prototype.toString,i=n.call(function(){return arguments}());e.exports=function(t){return n.call(t)===i}},{}],173:[function(t,e,r){\\\"use strict\\\";var n=Object.prototype.toString,i=n.call(t(\\\"./noop\\\"));e.exports=function(t){return\\\"function\\\"==typeof t&&n.call(t)===i}},{\\\"./noop\\\":174}],174:[function(t,e,r){\\\"use strict\\\";e.exports=function(){}},{}],175:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"./is-implemented\\\")()?Math.sign:t(\\\"./shim\\\")},{\\\"./is-implemented\\\":176,\\\"./shim\\\":177}],176:[function(t,e,r){\\\"use strict\\\";e.exports=function(){var t=Math.sign;return\\\"function\\\"==typeof t&&(1===t(10)&&-1===t(-20))}},{}],177:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){return t=Number(t),isNaN(t)||0===t?t:t>0?1:-1}},{}],178:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../math/sign\\\"),i=Math.abs,a=Math.floor;e.exports=function(t){return isNaN(t)?0:0!==(t=Number(t))&&isFinite(t)?n(t)*a(i(t)):t}},{\\\"../math/sign\\\":175}],179:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./to-integer\\\"),i=Math.max;e.exports=function(t){return i(0,n(t))}},{\\\"./to-integer\\\":178}],180:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./valid-callable\\\"),i=t(\\\"./valid-value\\\"),a=Function.prototype.bind,o=Function.prototype.call,s=Object.keys,l=Object.prototype.propertyIsEnumerable;e.exports=function(t,e){return function(r,c){var u,f=arguments[2],h=arguments[3];return r=Object(i(r)),n(c),u=s(r),h&&u.sort(\\\"function\\\"==typeof h?a.call(h,r):void 0),\\\"function\\\"!=typeof t&&(t=u[t]),o.call(t,u,function(t,n){return l.call(r,t)?o.call(c,f,r[t],t,r,n):e})}}},{\\\"./valid-callable\\\":198,\\\"./valid-value\\\":200}],181:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"./is-implemented\\\")()?Object.assign:t(\\\"./shim\\\")},{\\\"./is-implemented\\\":182,\\\"./shim\\\":183}],182:[function(t,e,r){\\\"use strict\\\";e.exports=function(){var t,e=Object.assign;return\\\"function\\\"==typeof e&&(e(t={foo:\\\"raz\\\"},{bar:\\\"dwa\\\"},{trzy:\\\"trzy\\\"}),t.foo+t.bar+t.trzy===\\\"razdwatrzy\\\")}},{}],183:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../keys\\\"),i=t(\\\"../valid-value\\\"),a=Math.max;e.exports=function(t,e){var r,o,s,l=a(arguments.length,2);for(t=Object(i(t)),s=function(n){try{t[n]=e[n]}catch(t){r||(r=t)}},o=1;o<l;++o)e=arguments[o],n(e).forEach(s);if(void 0!==r)throw r;return t}},{\\\"../keys\\\":190,\\\"../valid-value\\\":200}],184:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../array/from\\\"),i=t(\\\"./assign\\\"),a=t(\\\"./valid-value\\\");e.exports=function(t){var e=Object(a(t)),r=arguments[1],o=Object(arguments[2]);if(e!==t&&!r)return e;var s={};return r?n(r,function(e){(o.ensure||e in t)&&(s[e]=t[e])}):i(s,t),s}},{\\\"../array/from\\\":169,\\\"./assign\\\":181,\\\"./valid-value\\\":200}],185:[function(t,e,r){\\\"use strict\\\";var n,i,a,o,s=Object.create;t(\\\"./set-prototype-of/is-implemented\\\")()||(n=t(\\\"./set-prototype-of/shim\\\")),e.exports=n?1!==n.level?s:(i={},a={},o={configurable:!1,enumerable:!1,writable:!0,value:void 0},Object.getOwnPropertyNames(Object.prototype).forEach(function(t){a[t]=\\\"__proto__\\\"!==t?o:{configurable:!0,enumerable:!1,writable:!0,value:void 0}}),Object.defineProperties(i,a),Object.defineProperty(n,\\\"nullPolyfill\\\",{configurable:!1,enumerable:!1,writable:!1,value:i}),function(t,e){return s(null===t?i:t,e)}):s},{\\\"./set-prototype-of/is-implemented\\\":196,\\\"./set-prototype-of/shim\\\":197}],186:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"./_iterate\\\")(\\\"forEach\\\")},{\\\"./_iterate\\\":180}],187:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){return\\\"function\\\"==typeof t}},{}],188:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./is-value\\\"),i={function:!0,object:!0};e.exports=function(t){return n(t)&&i[typeof t]||!1}},{\\\"./is-value\\\":189}],189:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../function/noop\\\")();e.exports=function(t){return t!==n&&null!==t}},{\\\"../function/noop\\\":174}],190:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"./is-implemented\\\")()?Object.keys:t(\\\"./shim\\\")},{\\\"./is-implemented\\\":191,\\\"./shim\\\":192}],191:[function(t,e,r){\\\"use strict\\\";e.exports=function(){try{return Object.keys(\\\"primitive\\\"),!0}catch(t){return!1}}},{}],192:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../is-value\\\"),i=Object.keys;e.exports=function(t){return i(n(t)?Object(t):t)}},{\\\"../is-value\\\":189}],193:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./valid-callable\\\"),i=t(\\\"./for-each\\\"),a=Function.prototype.call;e.exports=function(t,e){var r={},o=arguments[2];return n(e),i(t,function(t,n,i,s){r[n]=a.call(e,o,t,n,i,s)}),r}},{\\\"./for-each\\\":186,\\\"./valid-callable\\\":198}],194:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./is-value\\\"),i=Array.prototype.forEach,a=Object.create;e.exports=function(t){var e=a(null);return i.call(arguments,function(t){n(t)&&function(t,e){var r;for(r in t)e[r]=t[r]}(Object(t),e)}),e}},{\\\"./is-value\\\":189}],195:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"./is-implemented\\\")()?Object.setPrototypeOf:t(\\\"./shim\\\")},{\\\"./is-implemented\\\":196,\\\"./shim\\\":197}],196:[function(t,e,r){\\\"use strict\\\";var n=Object.create,i=Object.getPrototypeOf,a={};e.exports=function(){var t=Object.setPrototypeOf,e=arguments[0]||n;return\\\"function\\\"==typeof t&&i(t(e(null),a))===a}},{}],197:[function(t,e,r){\\\"use strict\\\";var n,i,a,o,s=t(\\\"../is-object\\\"),l=t(\\\"../valid-value\\\"),c=Object.prototype.isPrototypeOf,u=Object.defineProperty,f={configurable:!0,enumerable:!1,writable:!0,value:void 0};n=function(t,e){if(l(t),null===e||s(e))return t;throw new TypeError(\\\"Prototype must be null or an object\\\")},e.exports=(i=function(){var t,e=Object.create(null),r={},n=Object.getOwnPropertyDescriptor(Object.prototype,\\\"__proto__\\\");if(n){try{(t=n.set).call(e,r)}catch(t){}if(Object.getPrototypeOf(e)===r)return{set:t,level:2}}return e.__proto__=r,Object.getPrototypeOf(e)===r?{level:2}:((e={}).__proto__=r,Object.getPrototypeOf(e)===r&&{level:1})}())?(2===i.level?i.set?(o=i.set,a=function(t,e){return o.call(n(t,e),e),t}):a=function(t,e){return n(t,e).__proto__=e,t}:a=function t(e,r){var i;return n(e,r),(i=c.call(t.nullPolyfill,e))&&delete t.nullPolyfill.__proto__,null===r&&(r=t.nullPolyfill),e.__proto__=r,i&&u(t.nullPolyfill,\\\"__proto__\\\",f),e},Object.defineProperty(a,\\\"level\\\",{configurable:!1,enumerable:!1,writable:!1,value:i.level})):null,t(\\\"../create\\\")},{\\\"../create\\\":185,\\\"../is-object\\\":188,\\\"../valid-value\\\":200}],198:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){if(\\\"function\\\"!=typeof t)throw new TypeError(t+\\\" is not a function\\\");return t}},{}],199:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./is-object\\\");e.exports=function(t){if(!n(t))throw new TypeError(t+\\\" is not an Object\\\");return t}},{\\\"./is-object\\\":188}],200:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./is-value\\\");e.exports=function(t){if(!n(t))throw new TypeError(\\\"Cannot use null or undefined\\\");return t}},{\\\"./is-value\\\":189}],201:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"./is-implemented\\\")()?String.prototype.contains:t(\\\"./shim\\\")},{\\\"./is-implemented\\\":202,\\\"./shim\\\":203}],202:[function(t,e,r){\\\"use strict\\\";var n=\\\"razdwatrzy\\\";e.exports=function(){return\\\"function\\\"==typeof n.contains&&(!0===n.contains(\\\"dwa\\\")&&!1===n.contains(\\\"foo\\\"))}},{}],203:[function(t,e,r){\\\"use strict\\\";var n=String.prototype.indexOf;e.exports=function(t){return n.call(this,t,arguments[1])>-1}},{}],204:[function(t,e,r){\\\"use strict\\\";var n=Object.prototype.toString,i=n.call(\\\"\\\");e.exports=function(t){return\\\"string\\\"==typeof t||t&&\\\"object\\\"==typeof t&&(t instanceof String||n.call(t)===i)||!1}},{}],205:[function(t,e,r){\\\"use strict\\\";var n=Object.create(null),i=Math.random;e.exports=function(){var t;do{t=i().toString(36).slice(2)}while(n[t]);return t}},{}],206:[function(t,e,r){\\\"use strict\\\";var n,i=t(\\\"es5-ext/object/set-prototype-of\\\"),a=t(\\\"es5-ext/string/#/contains\\\"),o=t(\\\"d\\\"),s=t(\\\"es6-symbol\\\"),l=t(\\\"./\\\"),c=Object.defineProperty;n=e.exports=function(t,e){if(!(this instanceof n))throw new TypeError(\\\"Constructor requires 'new'\\\");l.call(this,t),e=e?a.call(e,\\\"key+value\\\")?\\\"key+value\\\":a.call(e,\\\"key\\\")?\\\"key\\\":\\\"value\\\":\\\"value\\\",c(this,\\\"__kind__\\\",o(\\\"\\\",e))},i&&i(n,l),delete n.prototype.constructor,n.prototype=Object.create(l.prototype,{_resolve:o(function(t){return\\\"value\\\"===this.__kind__?this.__list__[t]:\\\"key+value\\\"===this.__kind__?[t,this.__list__[t]]:t})}),c(n.prototype,s.toStringTag,o(\\\"c\\\",\\\"Array Iterator\\\"))},{\\\"./\\\":209,d:144,\\\"es5-ext/object/set-prototype-of\\\":195,\\\"es5-ext/string/#/contains\\\":201,\\\"es6-symbol\\\":214}],207:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"es5-ext/function/is-arguments\\\"),i=t(\\\"es5-ext/object/valid-callable\\\"),a=t(\\\"es5-ext/string/is-string\\\"),o=t(\\\"./get\\\"),s=Array.isArray,l=Function.prototype.call,c=Array.prototype.some;e.exports=function(t,e){var r,u,f,h,p,d,g,v,m=arguments[2];if(s(t)||n(t)?r=\\\"array\\\":a(t)?r=\\\"string\\\":t=o(t),i(e),f=function(){h=!0},\\\"array\\\"!==r)if(\\\"string\\\"!==r)for(u=t.next();!u.done;){if(l.call(e,m,u.value,f),h)return;u=t.next()}else for(d=t.length,p=0;p<d&&(g=t[p],p+1<d&&(v=g.charCodeAt(0))>=55296&&v<=56319&&(g+=t[++p]),l.call(e,m,g,f),!h);++p);else c.call(t,function(t){return l.call(e,m,t,f),h})}},{\\\"./get\\\":208,\\\"es5-ext/function/is-arguments\\\":172,\\\"es5-ext/object/valid-callable\\\":198,\\\"es5-ext/string/is-string\\\":204}],208:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"es5-ext/function/is-arguments\\\"),i=t(\\\"es5-ext/string/is-string\\\"),a=t(\\\"./array\\\"),o=t(\\\"./string\\\"),s=t(\\\"./valid-iterable\\\"),l=t(\\\"es6-symbol\\\").iterator;e.exports=function(t){return\\\"function\\\"==typeof s(t)[l]?t[l]():n(t)?new a(t):i(t)?new o(t):new a(t)}},{\\\"./array\\\":206,\\\"./string\\\":211,\\\"./valid-iterable\\\":212,\\\"es5-ext/function/is-arguments\\\":172,\\\"es5-ext/string/is-string\\\":204,\\\"es6-symbol\\\":214}],209:[function(t,e,r){\\\"use strict\\\";var n,i=t(\\\"es5-ext/array/#/clear\\\"),a=t(\\\"es5-ext/object/assign\\\"),o=t(\\\"es5-ext/object/valid-callable\\\"),s=t(\\\"es5-ext/object/valid-value\\\"),l=t(\\\"d\\\"),c=t(\\\"d/auto-bind\\\"),u=t(\\\"es6-symbol\\\"),f=Object.defineProperty,h=Object.defineProperties;e.exports=n=function(t,e){if(!(this instanceof n))throw new TypeError(\\\"Constructor requires 'new'\\\");h(this,{__list__:l(\\\"w\\\",s(t)),__context__:l(\\\"w\\\",e),__nextIndex__:l(\\\"w\\\",0)}),e&&(o(e.on),e.on(\\\"_add\\\",this._onAdd),e.on(\\\"_delete\\\",this._onDelete),e.on(\\\"_clear\\\",this._onClear))},delete n.prototype.constructor,h(n.prototype,a({_next:l(function(){var t;if(this.__list__)return this.__redo__&&void 0!==(t=this.__redo__.shift())?t:this.__nextIndex__<this.__list__.length?this.__nextIndex__++:void this._unBind()}),next:l(function(){return this._createResult(this._next())}),_createResult:l(function(t){return void 0===t?{done:!0,value:void 0}:{done:!1,value:this._resolve(t)}}),_resolve:l(function(t){return this.__list__[t]}),_unBind:l(function(){this.__list__=null,delete this.__redo__,this.__context__&&(this.__context__.off(\\\"_add\\\",this._onAdd),this.__context__.off(\\\"_delete\\\",this._onDelete),this.__context__.off(\\\"_clear\\\",this._onClear),this.__context__=null)}),toString:l(function(){return\\\"[object \\\"+(this[u.toStringTag]||\\\"Object\\\")+\\\"]\\\"})},c({_onAdd:l(function(t){t>=this.__nextIndex__||(++this.__nextIndex__,this.__redo__?(this.__redo__.forEach(function(e,r){e>=t&&(this.__redo__[r]=++e)},this),this.__redo__.push(t)):f(this,\\\"__redo__\\\",l(\\\"c\\\",[t])))}),_onDelete:l(function(t){var e;t>=this.__nextIndex__||(--this.__nextIndex__,this.__redo__&&(-1!==(e=this.__redo__.indexOf(t))&&this.__redo__.splice(e,1),this.__redo__.forEach(function(e,r){e>t&&(this.__redo__[r]=--e)},this)))}),_onClear:l(function(){this.__redo__&&i.call(this.__redo__),this.__nextIndex__=0})}))),f(n.prototype,u.iterator,l(function(){return this}))},{d:144,\\\"d/auto-bind\\\":143,\\\"es5-ext/array/#/clear\\\":168,\\\"es5-ext/object/assign\\\":181,\\\"es5-ext/object/valid-callable\\\":198,\\\"es5-ext/object/valid-value\\\":200,\\\"es6-symbol\\\":214}],210:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"es5-ext/function/is-arguments\\\"),i=t(\\\"es5-ext/object/is-value\\\"),a=t(\\\"es5-ext/string/is-string\\\"),o=t(\\\"es6-symbol\\\").iterator,s=Array.isArray;e.exports=function(t){return!!i(t)&&(!!s(t)||(!!a(t)||(!!n(t)||\\\"function\\\"==typeof t[o])))}},{\\\"es5-ext/function/is-arguments\\\":172,\\\"es5-ext/object/is-value\\\":189,\\\"es5-ext/string/is-string\\\":204,\\\"es6-symbol\\\":214}],211:[function(t,e,r){\\\"use strict\\\";var n,i=t(\\\"es5-ext/object/set-prototype-of\\\"),a=t(\\\"d\\\"),o=t(\\\"es6-symbol\\\"),s=t(\\\"./\\\"),l=Object.defineProperty;n=e.exports=function(t){if(!(this instanceof n))throw new TypeError(\\\"Constructor requires 'new'\\\");t=String(t),s.call(this,t),l(this,\\\"__length__\\\",a(\\\"\\\",t.length))},i&&i(n,s),delete n.prototype.constructor,n.prototype=Object.create(s.prototype,{_next:a(function(){if(this.__list__)return this.__nextIndex__<this.__length__?this.__nextIndex__++:void this._unBind()}),_resolve:a(function(t){var e,r=this.__list__[t];return this.__nextIndex__===this.__length__?r:(e=r.charCodeAt(0))>=55296&&e<=56319?r+this.__list__[this.__nextIndex__++]:r})}),l(n.prototype,o.toStringTag,a(\\\"c\\\",\\\"String Iterator\\\"))},{\\\"./\\\":209,d:144,\\\"es5-ext/object/set-prototype-of\\\":195,\\\"es6-symbol\\\":214}],212:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./is-iterable\\\");e.exports=function(t){if(!n(t))throw new TypeError(t+\\\" is not iterable\\\");return t}},{\\\"./is-iterable\\\":210}],213:[function(t,e,r){(function(n,i){!function(t,n){\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?e.exports=n():t.ES6Promise=n()}(this,function(){\\\"use strict\\\";function e(t){return\\\"function\\\"==typeof t}var r=Array.isArray?Array.isArray:function(t){return\\\"[object Array]\\\"===Object.prototype.toString.call(t)},a=0,o=void 0,s=void 0,l=function(t,e){g[a]=t,g[a+1]=e,2===(a+=2)&&(s?s(v):_())};var c=\\\"undefined\\\"!=typeof window?window:void 0,u=c||{},f=u.MutationObserver||u.WebKitMutationObserver,h=\\\"undefined\\\"==typeof self&&\\\"undefined\\\"!=typeof n&&\\\"[object process]\\\"==={}.toString.call(n),p=\\\"undefined\\\"!=typeof Uint8ClampedArray&&\\\"undefined\\\"!=typeof importScripts&&\\\"undefined\\\"!=typeof MessageChannel;function d(){var t=setTimeout;return function(){return t(v,1)}}var g=new Array(1e3);function v(){for(var t=0;t<a;t+=2){(0,g[t])(g[t+1]),g[t]=void 0,g[t+1]=void 0}a=0}var m,y,x,b,_=void 0;function w(t,e){var r=arguments,n=this,i=new this.constructor(A);void 0===i[T]&&U(i);var a,o=n._state;return o?(a=r[o-1],l(function(){return j(o,i,a,n._result)})):R(n,i,t,e),i}function k(t){if(t&&\\\"object\\\"==typeof t&&t.constructor===this)return t;var e=new this(A);return O(e,t),e}h?_=function(){return n.nextTick(v)}:f?(y=0,x=new f(v),b=document.createTextNode(\\\"\\\"),x.observe(b,{characterData:!0}),_=function(){b.data=y=++y%2}):p?((m=new MessageChannel).port1.onmessage=v,_=function(){return m.port2.postMessage(0)}):_=void 0===c&&\\\"function\\\"==typeof t?function(){try{var e=t(\\\"vertx\\\");return o=e.runOnLoop||e.runOnContext,function(){o(v)}}catch(t){return d()}}():d();var T=Math.random().toString(36).substring(16);function A(){}var M=void 0,S=1,E=2,C=new B;function L(t){try{return t.then}catch(t){return C.error=t,C}}function z(t,r,n){r.constructor===t.constructor&&n===w&&r.constructor.resolve===k?function(t,e){e._state===S?D(t,e._result):e._state===E?P(t,e._result):R(e,void 0,function(e){return O(t,e)},function(e){return P(t,e)})}(t,r):n===C?P(t,C.error):void 0===n?D(t,r):e(n)?function(t,e,r){l(function(t){var n=!1,i=function(t,e,r,n){try{t.call(e,r,n)}catch(t){return t}}(r,e,function(r){n||(n=!0,e!==r?O(t,r):D(t,r))},function(e){n||(n=!0,P(t,e))},t._label);!n&&i&&(n=!0,P(t,i))},t)}(t,r,n):D(t,r)}function O(t,e){var r;t===e?P(t,new TypeError(\\\"You cannot resolve a promise with itself\\\")):\\\"function\\\"==typeof(r=e)||\\\"object\\\"==typeof r&&null!==r?z(t,e,L(e)):D(t,e)}function I(t){t._onerror&&t._onerror(t._result),F(t)}function D(t,e){t._state===M&&(t._result=e,t._state=S,0!==t._subscribers.length&&l(F,t))}function P(t,e){t._state===M&&(t._state=E,t._result=e,l(I,t))}function R(t,e,r,n){var i=t._subscribers,a=i.length;t._onerror=null,i[a]=e,i[a+S]=r,i[a+E]=n,0===a&&t._state&&l(F,t)}function F(t){var e=t._subscribers,r=t._state;if(0!==e.length){for(var n=void 0,i=void 0,a=t._result,o=0;o<e.length;o+=3)n=e[o],i=e[o+r],n?j(r,n,i,a):i(a);t._subscribers.length=0}}function B(){this.error=null}var N=new B;function j(t,r,n,i){var a=e(n),o=void 0,s=void 0,l=void 0,c=void 0;if(a){if((o=function(t,e){try{return t(e)}catch(t){return N.error=t,N}}(n,i))===N?(c=!0,s=o.error,o=null):l=!0,r===o)return void P(r,new TypeError(\\\"A promises callback cannot return that same promise.\\\"))}else o=i,l=!0;r._state!==M||(a&&l?O(r,o):c?P(r,s):t===S?D(r,o):t===E&&P(r,o))}var V=0;function U(t){t[T]=V++,t._state=void 0,t._result=void 0,t._subscribers=[]}function H(t,e){this._instanceConstructor=t,this.promise=new t(A),this.promise[T]||U(this.promise),r(e)?(this._input=e,this.length=e.length,this._remaining=e.length,this._result=new Array(this.length),0===this.length?D(this.promise,this._result):(this.length=this.length||0,this._enumerate(),0===this._remaining&&D(this.promise,this._result))):P(this.promise,new Error(\\\"Array Methods must be provided an Array\\\"))}function q(t){this[T]=V++,this._result=this._state=void 0,this._subscribers=[],A!==t&&(\\\"function\\\"!=typeof t&&function(){throw new TypeError(\\\"You must pass a resolver function as the first argument to the promise constructor\\\")}(),this instanceof q?function(t,e){try{e(function(e){O(t,e)},function(e){P(t,e)})}catch(e){P(t,e)}}(this,t):function(){throw new TypeError(\\\"Failed to construct 'Promise': Please use the 'new' operator, this object constructor cannot be called as a function.\\\")}())}function G(){var t=void 0;if(\\\"undefined\\\"!=typeof i)t=i;else if(\\\"undefined\\\"!=typeof self)t=self;else try{t=Function(\\\"return this\\\")()}catch(t){throw new Error(\\\"polyfill failed because global object is unavailable in this environment\\\")}var e=t.Promise;if(e){var r=null;try{r=Object.prototype.toString.call(e.resolve())}catch(t){}if(\\\"[object Promise]\\\"===r&&!e.cast)return}t.Promise=q}return H.prototype._enumerate=function(){for(var t=this.length,e=this._input,r=0;this._state===M&&r<t;r++)this._eachEntry(e[r],r)},H.prototype._eachEntry=function(t,e){var r=this._instanceConstructor,n=r.resolve;if(n===k){var i=L(t);if(i===w&&t._state!==M)this._settledAt(t._state,e,t._result);else if(\\\"function\\\"!=typeof i)this._remaining--,this._result[e]=t;else if(r===q){var a=new r(A);z(a,t,i),this._willSettleAt(a,e)}else this._willSettleAt(new r(function(e){return e(t)}),e)}else this._willSettleAt(n(t),e)},H.prototype._settledAt=function(t,e,r){var n=this.promise;n._state===M&&(this._remaining--,t===E?P(n,r):this._result[e]=r),0===this._remaining&&D(n,this._result)},H.prototype._willSettleAt=function(t,e){var r=this;R(t,void 0,function(t){return r._settledAt(S,e,t)},function(t){return r._settledAt(E,e,t)})},q.all=function(t){return new H(this,t).promise},q.race=function(t){var e=this;return r(t)?new e(function(r,n){for(var i=t.length,a=0;a<i;a++)e.resolve(t[a]).then(r,n)}):new e(function(t,e){return e(new TypeError(\\\"You must pass an array to race.\\\"))})},q.resolve=k,q.reject=function(t){var e=new this(A);return P(e,t),e},q._setScheduler=function(t){s=t},q._setAsap=function(t){l=t},q._asap=l,q.prototype={constructor:q,then:w,catch:function(t){return this.then(null,t)}},G(),q.polyfill=G,q.Promise=q,q})}).call(this,t(\\\"_process\\\"),\\\"undefined\\\"!=typeof global?global:\\\"undefined\\\"!=typeof self?self:\\\"undefined\\\"!=typeof window?window:{})},{_process:477}],214:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"./is-implemented\\\")()?Symbol:t(\\\"./polyfill\\\")},{\\\"./is-implemented\\\":215,\\\"./polyfill\\\":217}],215:[function(t,e,r){\\\"use strict\\\";var n={object:!0,symbol:!0};e.exports=function(){var t;if(\\\"function\\\"!=typeof Symbol)return!1;t=Symbol(\\\"test symbol\\\");try{String(t)}catch(t){return!1}return!!n[typeof Symbol.iterator]&&(!!n[typeof Symbol.toPrimitive]&&!!n[typeof Symbol.toStringTag])}},{}],216:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){return!!t&&(\\\"symbol\\\"==typeof t||!!t.constructor&&(\\\"Symbol\\\"===t.constructor.name&&\\\"Symbol\\\"===t[t.constructor.toStringTag]))}},{}],217:[function(t,e,r){\\\"use strict\\\";var n,i,a,o,s=t(\\\"d\\\"),l=t(\\\"./validate-symbol\\\"),c=Object.create,u=Object.defineProperties,f=Object.defineProperty,h=Object.prototype,p=c(null);if(\\\"function\\\"==typeof Symbol){n=Symbol;try{String(n()),o=!0}catch(t){}}var d,g=(d=c(null),function(t){for(var e,r,n=0;d[t+(n||\\\"\\\")];)++n;return d[t+=n||\\\"\\\"]=!0,f(h,e=\\\"@@\\\"+t,s.gs(null,function(t){r||(r=!0,f(this,e,s(t)),r=!1)})),e});a=function(t){if(this instanceof a)throw new TypeError(\\\"Symbol is not a constructor\\\");return i(t)},e.exports=i=function t(e){var r;if(this instanceof t)throw new TypeError(\\\"Symbol is not a constructor\\\");return o?n(e):(r=c(a.prototype),e=void 0===e?\\\"\\\":String(e),u(r,{__description__:s(\\\"\\\",e),__name__:s(\\\"\\\",g(e))}))},u(i,{for:s(function(t){return p[t]?p[t]:p[t]=i(String(t))}),keyFor:s(function(t){var e;for(e in l(t),p)if(p[e]===t)return e}),hasInstance:s(\\\"\\\",n&&n.hasInstance||i(\\\"hasInstance\\\")),isConcatSpreadable:s(\\\"\\\",n&&n.isConcatSpreadable||i(\\\"isConcatSpreadable\\\")),iterator:s(\\\"\\\",n&&n.iterator||i(\\\"iterator\\\")),match:s(\\\"\\\",n&&n.match||i(\\\"match\\\")),replace:s(\\\"\\\",n&&n.replace||i(\\\"replace\\\")),search:s(\\\"\\\",n&&n.search||i(\\\"search\\\")),species:s(\\\"\\\",n&&n.species||i(\\\"species\\\")),split:s(\\\"\\\",n&&n.split||i(\\\"split\\\")),toPrimitive:s(\\\"\\\",n&&n.toPrimitive||i(\\\"toPrimitive\\\")),toStringTag:s(\\\"\\\",n&&n.toStringTag||i(\\\"toStringTag\\\")),unscopables:s(\\\"\\\",n&&n.unscopables||i(\\\"unscopables\\\"))}),u(a.prototype,{constructor:s(i),toString:s(\\\"\\\",function(){return this.__name__})}),u(i.prototype,{toString:s(function(){return\\\"Symbol (\\\"+l(this).__description__+\\\")\\\"}),valueOf:s(function(){return l(this)})}),f(i.prototype,i.toPrimitive,s(\\\"\\\",function(){var t=l(this);return\\\"symbol\\\"==typeof t?t:t.toString()})),f(i.prototype,i.toStringTag,s(\\\"c\\\",\\\"Symbol\\\")),f(a.prototype,i.toStringTag,s(\\\"c\\\",i.prototype[i.toStringTag])),f(a.prototype,i.toPrimitive,s(\\\"c\\\",i.prototype[i.toPrimitive]))},{\\\"./validate-symbol\\\":218,d:144}],218:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./is-symbol\\\");e.exports=function(t){if(!n(t))throw new TypeError(t+\\\" is not a symbol\\\");return t}},{\\\"./is-symbol\\\":216}],219:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"./is-implemented\\\")()?WeakMap:t(\\\"./polyfill\\\")},{\\\"./is-implemented\\\":220,\\\"./polyfill\\\":222}],220:[function(t,e,r){\\\"use strict\\\";e.exports=function(){var t,e;if(\\\"function\\\"!=typeof WeakMap)return!1;try{t=new WeakMap([[e={},\\\"one\\\"],[{},\\\"two\\\"],[{},\\\"three\\\"]])}catch(t){return!1}return\\\"[object WeakMap]\\\"===String(t)&&(\\\"function\\\"==typeof t.set&&(t.set({},1)===t&&(\\\"function\\\"==typeof t.delete&&(\\\"function\\\"==typeof t.has&&\\\"one\\\"===t.get(e)))))}},{}],221:[function(t,e,r){\\\"use strict\\\";e.exports=\\\"function\\\"==typeof WeakMap&&\\\"[object WeakMap]\\\"===Object.prototype.toString.call(new WeakMap)},{}],222:[function(t,e,r){\\\"use strict\\\";var n,i=t(\\\"es5-ext/object/set-prototype-of\\\"),a=t(\\\"es5-ext/object/valid-object\\\"),o=t(\\\"es5-ext/object/valid-value\\\"),s=t(\\\"es5-ext/string/random-uniq\\\"),l=t(\\\"d\\\"),c=t(\\\"es6-iterator/get\\\"),u=t(\\\"es6-iterator/for-of\\\"),f=t(\\\"es6-symbol\\\").toStringTag,h=t(\\\"./is-native-implemented\\\"),p=Array.isArray,d=Object.defineProperty,g=Object.prototype.hasOwnProperty,v=Object.getPrototypeOf;e.exports=n=function(){var t,e=arguments[0];if(!(this instanceof n))throw new TypeError(\\\"Constructor requires 'new'\\\");return t=h&&i&&WeakMap!==n?i(new WeakMap,v(this)):this,null!=e&&(p(e)||(e=c(e))),d(t,\\\"__weakMapData__\\\",l(\\\"c\\\",\\\"$weakMap$\\\"+s())),e?(u(e,function(e){o(e),t.set(e[0],e[1])}),t):t},h&&(i&&i(n,WeakMap),n.prototype=Object.create(WeakMap.prototype,{constructor:l(n)})),Object.defineProperties(n.prototype,{delete:l(function(t){return!!g.call(a(t),this.__weakMapData__)&&(delete t[this.__weakMapData__],!0)}),get:l(function(t){if(g.call(a(t),this.__weakMapData__))return t[this.__weakMapData__]}),has:l(function(t){return g.call(a(t),this.__weakMapData__)}),set:l(function(t,e){return d(a(t),this.__weakMapData__,l(\\\"c\\\",e)),this}),toString:l(function(){return\\\"[object WeakMap]\\\"})}),d(n.prototype,f,l(\\\"c\\\",\\\"WeakMap\\\"))},{\\\"./is-native-implemented\\\":221,d:144,\\\"es5-ext/object/set-prototype-of\\\":195,\\\"es5-ext/object/valid-object\\\":199,\\\"es5-ext/object/valid-value\\\":200,\\\"es5-ext/string/random-uniq\\\":205,\\\"es6-iterator/for-of\\\":207,\\\"es6-iterator/get\\\":208,\\\"es6-symbol\\\":214}],223:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){var n=e||0,i=r||1;return[[t[12]+t[0],t[13]+t[1],t[14]+t[2],t[15]+t[3]],[t[12]-t[0],t[13]-t[1],t[14]-t[2],t[15]-t[3]],[t[12]+t[4],t[13]+t[5],t[14]+t[6],t[15]+t[7]],[t[12]-t[4],t[13]-t[5],t[14]-t[6],t[15]-t[7]],[n*t[12]+t[8],n*t[13]+t[9],n*t[14]+t[10],n*t[15]+t[11]],[i*t[12]-t[8],i*t[13]-t[9],i*t[14]-t[10],i*t[15]-t[11]]]}},{}],224:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"is-string-blank\\\");e.exports=function(t){var e=typeof t;if(\\\"string\\\"===e){var r=t;if(0===(t=+t)&&n(r))return!1}else if(\\\"number\\\"!==e)return!1;return t-t<1}},{\\\"is-string-blank\\\":418}],225:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){switch(arguments.length){case 0:return new o([0],[0],0);case 1:if(\\\"number\\\"==typeof t){var n=l(t);return new o(n,n,0)}return new o(t,l(t.length),0);case 2:if(\\\"number\\\"==typeof e){var n=l(t.length);return new o(t,n,+e)}r=0;case 3:if(t.length!==e.length)throw new Error(\\\"state and velocity lengths must match\\\");return new o(t,e,r)}};var n=t(\\\"cubic-hermite\\\"),i=t(\\\"binary-search-bounds\\\");function a(t,e,r){return Math.min(e,Math.max(t,r))}function o(t,e,r){this.dimension=t.length,this.bounds=[new Array(this.dimension),new Array(this.dimension)];for(var n=0;n<this.dimension;++n)this.bounds[0][n]=-1/0,this.bounds[1][n]=1/0;this._state=t.slice().reverse(),this._velocity=e.slice().reverse(),this._time=[r],this._scratch=[t.slice(),t.slice(),t.slice(),t.slice(),t.slice()]}var s=o.prototype;function l(t){for(var e=new Array(t),r=0;r<t;++r)e[r]=0;return e}s.flush=function(t){var e=i.gt(this._time,t)-1;e<=0||(this._time.splice(0,e),this._state.splice(0,e*this.dimension),this._velocity.splice(0,e*this.dimension))},s.curve=function(t){var e=this._time,r=e.length,o=i.le(e,t),s=this._scratch[0],l=this._state,c=this._velocity,u=this.dimension,f=this.bounds;if(o<0)for(var h=u-1,p=0;p<u;++p,--h)s[p]=l[h];else if(o>=r-1){h=l.length-1;var d=t-e[r-1];for(p=0;p<u;++p,--h)s[p]=l[h]+d*c[h]}else{h=u*(o+1)-1;var g=e[o],v=e[o+1]-g||1,m=this._scratch[1],y=this._scratch[2],x=this._scratch[3],b=this._scratch[4],_=!0;for(p=0;p<u;++p,--h)m[p]=l[h],x[p]=c[h]*v,y[p]=l[h+u],b[p]=c[h+u]*v,_=_&&m[p]===y[p]&&x[p]===b[p]&&0===x[p];if(_)for(p=0;p<u;++p)s[p]=m[p];else n(m,x,y,b,(t-g)/v,s)}var w=f[0],k=f[1];for(p=0;p<u;++p)s[p]=a(w[p],k[p],s[p]);return s},s.dcurve=function(t){var e=this._time,r=e.length,a=i.le(e,t),o=this._scratch[0],s=this._state,l=this._velocity,c=this.dimension;if(a>=r-1)for(var u=s.length-1,f=(e[r-1],0);f<c;++f,--u)o[f]=l[u];else{u=c*(a+1)-1;var h=e[a],p=e[a+1]-h||1,d=this._scratch[1],g=this._scratch[2],v=this._scratch[3],m=this._scratch[4],y=!0;for(f=0;f<c;++f,--u)d[f]=s[u],v[f]=l[u]*p,g[f]=s[u+c],m[f]=l[u+c]*p,y=y&&d[f]===g[f]&&v[f]===m[f]&&0===v[f];if(y)for(f=0;f<c;++f)o[f]=0;else{n.derivative(d,v,g,m,(t-h)/p,o);for(f=0;f<c;++f)o[f]/=p}}return o},s.lastT=function(){var t=this._time;return t[t.length-1]},s.stable=function(){for(var t=this._velocity,e=t.length,r=this.dimension-1;r>=0;--r)if(t[--e])return!1;return!0},s.jump=function(t){var e=this.lastT(),r=this.dimension;if(!(t<e||arguments.length!==r+1)){var n=this._state,i=this._velocity,o=n.length-this.dimension,s=this.bounds,l=s[0],c=s[1];this._time.push(e,t);for(var u=0;u<2;++u)for(var f=0;f<r;++f)n.push(n[o++]),i.push(0);this._time.push(t);for(f=r;f>0;--f)n.push(a(l[f-1],c[f-1],arguments[f])),i.push(0)}},s.push=function(t){var e=this.lastT(),r=this.dimension;if(!(t<e||arguments.length!==r+1)){var n=this._state,i=this._velocity,o=n.length-this.dimension,s=t-e,l=this.bounds,c=l[0],u=l[1],f=s>1e-6?1/s:0;this._time.push(t);for(var h=r;h>0;--h){var p=a(c[h-1],u[h-1],arguments[h]);n.push(p),i.push((p-n[o++])*f)}}},s.set=function(t){var e=this.dimension;if(!(t<this.lastT()||arguments.length!==e+1)){var r=this._state,n=this._velocity,i=this.bounds,o=i[0],s=i[1];this._time.push(t);for(var l=e;l>0;--l)r.push(a(o[l-1],s[l-1],arguments[l])),n.push(0)}},s.move=function(t){var e=this.lastT(),r=this.dimension;if(!(t<=e||arguments.length!==r+1)){var n=this._state,i=this._velocity,o=n.length-this.dimension,s=this.bounds,l=s[0],c=s[1],u=t-e,f=u>1e-6?1/u:0;this._time.push(t);for(var h=r;h>0;--h){var p=arguments[h];n.push(a(l[h-1],c[h-1],n[o++]+p)),i.push(p*f)}}},s.idle=function(t){var e=this.lastT();if(!(t<e)){var r=this.dimension,n=this._state,i=this._velocity,o=n.length-r,s=this.bounds,l=s[0],c=s[1],u=t-e;this._time.push(t);for(var f=r-1;f>=0;--f)n.push(a(l[f],c[f],n[o]+u*i[o])),i.push(0),o+=1}}},{\\\"binary-search-bounds\\\":84,\\\"cubic-hermite\\\":138}],226:[function(t,e,r){var n=t(\\\"dtype\\\");e.exports=function(t,e,r){if(!t)throw new TypeError(\\\"must specify data as first parameter\\\");if(r=0|+(r||0),Array.isArray(t)&&t[0]&&\\\"number\\\"==typeof t[0][0]){var i,a,o,s,l=t[0].length,c=t.length*l;e&&\\\"string\\\"!=typeof e||(e=new(n(e||\\\"float32\\\"))(c+r));var u=e.length-r;if(c!==u)throw new Error(\\\"source length \\\"+c+\\\" (\\\"+l+\\\"x\\\"+t.length+\\\") does not match destination length \\\"+u);for(i=0,o=r;i<t.length;i++)for(a=0;a<l;a++)e[o++]=null===t[i][a]?NaN:t[i][a]}else if(e&&\\\"string\\\"!=typeof e)e.set(t,r);else{var f=n(e||\\\"float32\\\");if(Array.isArray(t)||\\\"array\\\"===e)for(e=new f(t.length+r),i=0,o=r,s=e.length;o<s;o++,i++)e[o]=null===t[i]?NaN:t[i];else 0===r?e=new f(t):(e=new f(t.length+r)).set(t,r)}return e}},{dtype:163}],227:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"css-font/stringify\\\"),i=[32,126];e.exports=function(t){var e=(t=t||{}).shape?t.shape:t.canvas?[t.canvas.width,t.canvas.height]:[512,512],r=t.canvas||document.createElement(\\\"canvas\\\"),a=t.font,o=\\\"number\\\"==typeof t.step?[t.step,t.step]:t.step||[32,32],s=t.chars||i;a&&\\\"string\\\"!=typeof a&&(a=n(a));if(Array.isArray(s)){if(2===s.length&&\\\"number\\\"==typeof s[0]&&\\\"number\\\"==typeof s[1]){for(var l=[],c=s[0],u=0;c<=s[1];c++)l[u++]=String.fromCharCode(c);s=l}}else s=String(s).split(\\\"\\\");e=e.slice(),r.width=e[0],r.height=e[1];var f=r.getContext(\\\"2d\\\");f.fillStyle=\\\"#000\\\",f.fillRect(0,0,r.width,r.height),f.font=a,f.textAlign=\\\"center\\\",f.textBaseline=\\\"middle\\\",f.fillStyle=\\\"#fff\\\";for(var h=o[0]/2,p=o[1]/2,c=0;c<s.length;c++)f.fillText(s[c],h,p),(h+=o[0])>e[0]-o[0]/2&&(h=o[0]/2,p+=o[1]);return r}},{\\\"css-font/stringify\\\":135}],228:[function(t,e,r){\\\"use strict\\\";function n(t,e){e||(e={}),(\\\"string\\\"==typeof t||Array.isArray(t))&&(e.family=t);var r=Array.isArray(e.family)?e.family.join(\\\", \\\"):e.family;if(!r)throw Error(\\\"`family` must be defined\\\");var s=e.size||e.fontSize||e.em||48,l=e.weight||e.fontWeight||\\\"\\\",c=(t=[e.style||e.fontStyle||\\\"\\\",l,s].join(\\\" \\\")+\\\"px \\\"+r,e.origin||\\\"top\\\");if(n.cache[r]&&s<=n.cache[r].em)return i(n.cache[r],c);var u=e.canvas||n.canvas,f=u.getContext(\\\"2d\\\"),h={upper:void 0!==e.upper?e.upper:\\\"H\\\",lower:void 0!==e.lower?e.lower:\\\"x\\\",descent:void 0!==e.descent?e.descent:\\\"p\\\",ascent:void 0!==e.ascent?e.ascent:\\\"h\\\",tittle:void 0!==e.tittle?e.tittle:\\\"i\\\",overshoot:void 0!==e.overshoot?e.overshoot:\\\"O\\\"},p=Math.ceil(1.5*s);u.height=p,u.width=.5*p,f.font=t;var d={top:0};f.clearRect(0,0,p,p),f.textBaseline=\\\"top\\\",f.fillStyle=\\\"black\\\",f.fillText(\\\"H\\\",0,0);var g=a(f.getImageData(0,0,p,p));f.clearRect(0,0,p,p),f.textBaseline=\\\"bottom\\\",f.fillText(\\\"H\\\",0,p);var v=a(f.getImageData(0,0,p,p));d.lineHeight=d.bottom=p-v+g,f.clearRect(0,0,p,p),f.textBaseline=\\\"alphabetic\\\",f.fillText(\\\"H\\\",0,p);var m=p-a(f.getImageData(0,0,p,p))-1+g;d.baseline=d.alphabetic=m,f.clearRect(0,0,p,p),f.textBaseline=\\\"middle\\\",f.fillText(\\\"H\\\",0,.5*p);var y=a(f.getImageData(0,0,p,p));d.median=d.middle=p-y-1+g-.5*p,f.clearRect(0,0,p,p),f.textBaseline=\\\"hanging\\\",f.fillText(\\\"H\\\",0,.5*p);var x=a(f.getImageData(0,0,p,p));d.hanging=p-x-1+g-.5*p,f.clearRect(0,0,p,p),f.textBaseline=\\\"ideographic\\\",f.fillText(\\\"H\\\",0,p);var b=a(f.getImageData(0,0,p,p));if(d.ideographic=p-b-1+g,h.upper&&(f.clearRect(0,0,p,p),f.textBaseline=\\\"top\\\",f.fillText(h.upper,0,0),d.upper=a(f.getImageData(0,0,p,p)),d.capHeight=d.baseline-d.upper),h.lower&&(f.clearRect(0,0,p,p),f.textBaseline=\\\"top\\\",f.fillText(h.lower,0,0),d.lower=a(f.getImageData(0,0,p,p)),d.xHeight=d.baseline-d.lower),h.tittle&&(f.clearRect(0,0,p,p),f.textBaseline=\\\"top\\\",f.fillText(h.tittle,0,0),d.tittle=a(f.getImageData(0,0,p,p))),h.ascent&&(f.clearRect(0,0,p,p),f.textBaseline=\\\"top\\\",f.fillText(h.ascent,0,0),d.ascent=a(f.getImageData(0,0,p,p))),h.descent&&(f.clearRect(0,0,p,p),f.textBaseline=\\\"top\\\",f.fillText(h.descent,0,0),d.descent=o(f.getImageData(0,0,p,p))),h.overshoot){f.clearRect(0,0,p,p),f.textBaseline=\\\"top\\\",f.fillText(h.overshoot,0,0);var _=o(f.getImageData(0,0,p,p));d.overshoot=_-m}for(var w in d)d[w]/=s;return d.em=s,n.cache[r]=d,i(d,c)}function i(t,e){var r={};for(var n in\\\"string\\\"==typeof e&&(e=t[e]),t)\\\"em\\\"!==n&&(r[n]=t[n]-e);return r}function a(t){for(var e=t.height,r=t.data,n=3;n<r.length;n+=4)if(0!==r[n])return Math.floor(.25*(n-3)/e)}function o(t){for(var e=t.height,r=t.data,n=r.length-1;n>0;n-=4)if(0!==r[n])return Math.floor(.25*(n-3)/e)}e.exports=n,n.canvas=document.createElement(\\\"canvas\\\"),n.cache={}},{}],229:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){return new c(t||d,null)};var n=0,i=1;function a(t,e,r,n,i,a){this._color=t,this.key=e,this.value=r,this.left=n,this.right=i,this._count=a}function o(t){return new a(t._color,t.key,t.value,t.left,t.right,t._count)}function s(t,e){return new a(t,e.key,e.value,e.left,e.right,e._count)}function l(t){t._count=1+(t.left?t.left._count:0)+(t.right?t.right._count:0)}function c(t,e){this._compare=t,this.root=e}var u=c.prototype;function f(t,e){this.tree=t,this._stack=e}Object.defineProperty(u,\\\"keys\\\",{get:function(){var t=[];return this.forEach(function(e,r){t.push(e)}),t}}),Object.defineProperty(u,\\\"values\\\",{get:function(){var t=[];return this.forEach(function(e,r){t.push(r)}),t}}),Object.defineProperty(u,\\\"length\\\",{get:function(){return this.root?this.root._count:0}}),u.insert=function(t,e){for(var r=this._compare,o=this.root,u=[],f=[];o;){var h=r(t,o.key);u.push(o),f.push(h),o=h<=0?o.left:o.right}u.push(new a(n,t,e,null,null,1));for(var p=u.length-2;p>=0;--p){o=u[p];f[p]<=0?u[p]=new a(o._color,o.key,o.value,u[p+1],o.right,o._count+1):u[p]=new a(o._color,o.key,o.value,o.left,u[p+1],o._count+1)}for(p=u.length-1;p>1;--p){var d=u[p-1];o=u[p];if(d._color===i||o._color===i)break;var g=u[p-2];if(g.left===d)if(d.left===o){if(!(v=g.right)||v._color!==n){if(g._color=n,g.left=d.right,d._color=i,d.right=g,u[p-2]=d,u[p-1]=o,l(g),l(d),p>=3)(m=u[p-3]).left===g?m.left=d:m.right=d;break}d._color=i,g.right=s(i,v),g._color=n,p-=1}else{if(!(v=g.right)||v._color!==n){if(d.right=o.left,g._color=n,g.left=o.right,o._color=i,o.left=d,o.right=g,u[p-2]=o,u[p-1]=d,l(g),l(d),l(o),p>=3)(m=u[p-3]).left===g?m.left=o:m.right=o;break}d._color=i,g.right=s(i,v),g._color=n,p-=1}else if(d.right===o){if(!(v=g.left)||v._color!==n){if(g._color=n,g.right=d.left,d._color=i,d.left=g,u[p-2]=d,u[p-1]=o,l(g),l(d),p>=3)(m=u[p-3]).right===g?m.right=d:m.left=d;break}d._color=i,g.left=s(i,v),g._color=n,p-=1}else{var v;if(!(v=g.left)||v._color!==n){var m;if(d.left=o.right,g._color=n,g.right=o.left,o._color=i,o.right=d,o.left=g,u[p-2]=o,u[p-1]=d,l(g),l(d),l(o),p>=3)(m=u[p-3]).right===g?m.right=o:m.left=o;break}d._color=i,g.left=s(i,v),g._color=n,p-=1}}return u[0]._color=i,new c(r,u[0])},u.forEach=function(t,e,r){if(this.root)switch(arguments.length){case 1:return function t(e,r){var n;if(r.left&&(n=t(e,r.left)))return n;return(n=e(r.key,r.value))||(r.right?t(e,r.right):void 0)}(t,this.root);case 2:return function t(e,r,n,i){if(r(e,i.key)<=0){var a;if(i.left&&(a=t(e,r,n,i.left)))return a;if(a=n(i.key,i.value))return a}if(i.right)return t(e,r,n,i.right)}(e,this._compare,t,this.root);case 3:if(this._compare(e,r)>=0)return;return function t(e,r,n,i,a){var o,s=n(e,a.key),l=n(r,a.key);if(s<=0){if(a.left&&(o=t(e,r,n,i,a.left)))return o;if(l>0&&(o=i(a.key,a.value)))return o}if(l>0&&a.right)return t(e,r,n,i,a.right)}(e,r,this._compare,t,this.root)}},Object.defineProperty(u,\\\"begin\\\",{get:function(){for(var t=[],e=this.root;e;)t.push(e),e=e.left;return new f(this,t)}}),Object.defineProperty(u,\\\"end\\\",{get:function(){for(var t=[],e=this.root;e;)t.push(e),e=e.right;return new f(this,t)}}),u.at=function(t){if(t<0)return new f(this,[]);for(var e=this.root,r=[];;){if(r.push(e),e.left){if(t<e.left._count){e=e.left;continue}t-=e.left._count}if(!t)return new f(this,r);if(t-=1,!e.right)break;if(t>=e.right._count)break;e=e.right}return new f(this,[])},u.ge=function(t){for(var e=this._compare,r=this.root,n=[],i=0;r;){var a=e(t,r.key);n.push(r),a<=0&&(i=n.length),r=a<=0?r.left:r.right}return n.length=i,new f(this,n)},u.gt=function(t){for(var e=this._compare,r=this.root,n=[],i=0;r;){var a=e(t,r.key);n.push(r),a<0&&(i=n.length),r=a<0?r.left:r.right}return n.length=i,new f(this,n)},u.lt=function(t){for(var e=this._compare,r=this.root,n=[],i=0;r;){var a=e(t,r.key);n.push(r),a>0&&(i=n.length),r=a<=0?r.left:r.right}return n.length=i,new f(this,n)},u.le=function(t){for(var e=this._compare,r=this.root,n=[],i=0;r;){var a=e(t,r.key);n.push(r),a>=0&&(i=n.length),r=a<0?r.left:r.right}return n.length=i,new f(this,n)},u.find=function(t){for(var e=this._compare,r=this.root,n=[];r;){var i=e(t,r.key);if(n.push(r),0===i)return new f(this,n);r=i<=0?r.left:r.right}return new f(this,[])},u.remove=function(t){var e=this.find(t);return e?e.remove():this},u.get=function(t){for(var e=this._compare,r=this.root;r;){var n=e(t,r.key);if(0===n)return r.value;r=n<=0?r.left:r.right}};var h=f.prototype;function p(t,e){t.key=e.key,t.value=e.value,t.left=e.left,t.right=e.right,t._color=e._color,t._count=e._count}function d(t,e){return t<e?-1:t>e?1:0}Object.defineProperty(h,\\\"valid\\\",{get:function(){return this._stack.length>0}}),Object.defineProperty(h,\\\"node\\\",{get:function(){return this._stack.length>0?this._stack[this._stack.length-1]:null},enumerable:!0}),h.clone=function(){return new f(this.tree,this._stack.slice())},h.remove=function(){var t=this._stack;if(0===t.length)return this.tree;var e=new Array(t.length),r=t[t.length-1];e[e.length-1]=new a(r._color,r.key,r.value,r.left,r.right,r._count);for(var u=t.length-2;u>=0;--u){(r=t[u]).left===t[u+1]?e[u]=new a(r._color,r.key,r.value,e[u+1],r.right,r._count):e[u]=new a(r._color,r.key,r.value,r.left,e[u+1],r._count)}if((r=e[e.length-1]).left&&r.right){var f=e.length;for(r=r.left;r.right;)e.push(r),r=r.right;var h=e[f-1];e.push(new a(r._color,h.key,h.value,r.left,r.right,r._count)),e[f-1].key=r.key,e[f-1].value=r.value;for(u=e.length-2;u>=f;--u)r=e[u],e[u]=new a(r._color,r.key,r.value,r.left,e[u+1],r._count);e[f-1].left=e[f]}if((r=e[e.length-1])._color===n){var d=e[e.length-2];d.left===r?d.left=null:d.right===r&&(d.right=null),e.pop();for(u=0;u<e.length;++u)e[u]._count--;return new c(this.tree._compare,e[0])}if(r.left||r.right){r.left?p(r,r.left):r.right&&p(r,r.right),r._color=i;for(u=0;u<e.length-1;++u)e[u]._count--;return new c(this.tree._compare,e[0])}if(1===e.length)return new c(this.tree._compare,null);for(u=0;u<e.length;++u)e[u]._count--;var g=e[e.length-2];return function(t){for(var e,r,a,c,u=t.length-1;u>=0;--u){if(e=t[u],0===u)return void(e._color=i);if((r=t[u-1]).left===e){if((a=r.right).right&&a.right._color===n)return c=(a=r.right=o(a)).right=o(a.right),r.right=a.left,a.left=r,a.right=c,a._color=r._color,e._color=i,r._color=i,c._color=i,l(r),l(a),u>1&&((f=t[u-2]).left===r?f.left=a:f.right=a),void(t[u-1]=a);if(a.left&&a.left._color===n)return c=(a=r.right=o(a)).left=o(a.left),r.right=c.left,a.left=c.right,c.left=r,c.right=a,c._color=r._color,r._color=i,a._color=i,e._color=i,l(r),l(a),l(c),u>1&&((f=t[u-2]).left===r?f.left=c:f.right=c),void(t[u-1]=c);if(a._color===i){if(r._color===n)return r._color=i,void(r.right=s(n,a));r.right=s(n,a);continue}a=o(a),r.right=a.left,a.left=r,a._color=r._color,r._color=n,l(r),l(a),u>1&&((f=t[u-2]).left===r?f.left=a:f.right=a),t[u-1]=a,t[u]=r,u+1<t.length?t[u+1]=e:t.push(e),u+=2}else{if((a=r.left).left&&a.left._color===n)return c=(a=r.left=o(a)).left=o(a.left),r.left=a.right,a.right=r,a.left=c,a._color=r._color,e._color=i,r._color=i,c._color=i,l(r),l(a),u>1&&((f=t[u-2]).right===r?f.right=a:f.left=a),void(t[u-1]=a);if(a.right&&a.right._color===n)return c=(a=r.left=o(a)).right=o(a.right),r.left=c.right,a.right=c.left,c.right=r,c.left=a,c._color=r._color,r._color=i,a._color=i,e._color=i,l(r),l(a),l(c),u>1&&((f=t[u-2]).right===r?f.right=c:f.left=c),void(t[u-1]=c);if(a._color===i){if(r._color===n)return r._color=i,void(r.left=s(n,a));r.left=s(n,a);continue}var f;a=o(a),r.left=a.right,a.right=r,a._color=r._color,r._color=n,l(r),l(a),u>1&&((f=t[u-2]).right===r?f.right=a:f.left=a),t[u-1]=a,t[u]=r,u+1<t.length?t[u+1]=e:t.push(e),u+=2}}}(e),g.left===r?g.left=null:g.right=null,new c(this.tree._compare,e[0])},Object.defineProperty(h,\\\"key\\\",{get:function(){if(this._stack.length>0)return this._stack[this._stack.length-1].key},enumerable:!0}),Object.defineProperty(h,\\\"value\\\",{get:function(){if(this._stack.length>0)return this._stack[this._stack.length-1].value},enumerable:!0}),Object.defineProperty(h,\\\"index\\\",{get:function(){var t=0,e=this._stack;if(0===e.length){var r=this.tree.root;return r?r._count:0}e[e.length-1].left&&(t=e[e.length-1].left._count);for(var n=e.length-2;n>=0;--n)e[n+1]===e[n].right&&(++t,e[n].left&&(t+=e[n].left._count));return t},enumerable:!0}),h.next=function(){var t=this._stack;if(0!==t.length){var e=t[t.length-1];if(e.right)for(e=e.right;e;)t.push(e),e=e.left;else for(t.pop();t.length>0&&t[t.length-1].right===e;)e=t[t.length-1],t.pop()}},Object.defineProperty(h,\\\"hasNext\\\",{get:function(){var t=this._stack;if(0===t.length)return!1;if(t[t.length-1].right)return!0;for(var e=t.length-1;e>0;--e)if(t[e-1].left===t[e])return!0;return!1}}),h.update=function(t){var e=this._stack;if(0===e.length)throw new Error(\\\"Can't update empty node!\\\");var r=new Array(e.length),n=e[e.length-1];r[r.length-1]=new a(n._color,n.key,t,n.left,n.right,n._count);for(var i=e.length-2;i>=0;--i)(n=e[i]).left===e[i+1]?r[i]=new a(n._color,n.key,n.value,r[i+1],n.right,n._count):r[i]=new a(n._color,n.key,n.value,n.left,r[i+1],n._count);return new c(this.tree._compare,r[0])},h.prev=function(){var t=this._stack;if(0!==t.length){var e=t[t.length-1];if(e.left)for(e=e.left;e;)t.push(e),e=e.right;else for(t.pop();t.length>0&&t[t.length-1].left===e;)e=t[t.length-1],t.pop()}},Object.defineProperty(h,\\\"hasPrev\\\",{get:function(){var t=this._stack;if(0===t.length)return!1;if(t[t.length-1].left)return!0;for(var e=t.length-1;e>0;--e)if(t[e-1].right===t[e])return!0;return!1}})},{}],230:[function(t,e,r){var n=[.9999999999998099,676.5203681218851,-1259.1392167224028,771.3234287776531,-176.6150291621406,12.507343278686905,-.13857109526572012,9984369578019572e-21,1.5056327351493116e-7],i=607/128,a=[.9999999999999971,57.15623566586292,-59.59796035547549,14.136097974741746,-.4919138160976202,3399464998481189e-20,4652362892704858e-20,-9837447530487956e-20,.0001580887032249125,-.00021026444172410488,.00021743961811521265,-.0001643181065367639,8441822398385275e-20,-26190838401581408e-21,36899182659531625e-22];function o(t){if(t<0)return Number(\\\"0/0\\\");for(var e=a[0],r=a.length-1;r>0;--r)e+=a[r]/(t+r);var n=t+i+.5;return.5*Math.log(2*Math.PI)+(t+.5)*Math.log(n)-n+Math.log(e)-Math.log(t)}e.exports=function t(e){if(e<.5)return Math.PI/(Math.sin(Math.PI*e)*t(1-e));if(e>100)return Math.exp(o(e));e-=1;for(var r=n[0],i=1;i<9;i++)r+=n[i]/(e+i);var a=e+7+.5;return Math.sqrt(2*Math.PI)*Math.pow(a,e+.5)*Math.exp(-a)*r},e.exports.log=o},{}],231:[function(t,e,r){e.exports=function(t,e){if(\\\"string\\\"!=typeof t)throw new TypeError(\\\"must specify type string\\\");if(e=e||{},\\\"undefined\\\"==typeof document&&!e.canvas)return null;var r=e.canvas||document.createElement(\\\"canvas\\\");\\\"number\\\"==typeof e.width&&(r.width=e.width);\\\"number\\\"==typeof e.height&&(r.height=e.height);var n,i=e;try{var a=[t];0===t.indexOf(\\\"webgl\\\")&&a.push(\\\"experimental-\\\"+t);for(var o=0;o<a.length;o++)if(n=r.getContext(a[o],i))return n}catch(t){n=null}return n||null}},{}],232:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){var r=new u(t);return r.update(e),r};var n=t(\\\"./lib/text.js\\\"),i=t(\\\"./lib/lines.js\\\"),a=t(\\\"./lib/background.js\\\"),o=t(\\\"./lib/cube.js\\\"),s=t(\\\"./lib/ticks.js\\\"),l=new Float32Array([1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1]);function c(t,e){return t[0]=e[0],t[1]=e[1],t[2]=e[2],t}function u(t){this.gl=t,this.pixelRatio=1,this.bounds=[[-10,-10,-10],[10,10,10]],this.ticks=[[],[],[]],this.autoTicks=!0,this.tickSpacing=[1,1,1],this.tickEnable=[!0,!0,!0],this.tickFont=[\\\"sans-serif\\\",\\\"sans-serif\\\",\\\"sans-serif\\\"],this.tickSize=[12,12,12],this.tickAngle=[0,0,0],this.tickAlign=[\\\"auto\\\",\\\"auto\\\",\\\"auto\\\"],this.tickColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.tickPad=[10,10,10],this.lastCubeProps={cubeEdges:[0,0,0],axis:[0,0,0]},this.labels=[\\\"x\\\",\\\"y\\\",\\\"z\\\"],this.labelEnable=[!0,!0,!0],this.labelFont=\\\"sans-serif\\\",this.labelSize=[20,20,20],this.labelAngle=[0,0,0],this.labelAlign=[\\\"auto\\\",\\\"auto\\\",\\\"auto\\\"],this.labelColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.labelPad=[10,10,10],this.lineEnable=[!0,!0,!0],this.lineMirror=[!1,!1,!1],this.lineWidth=[1,1,1],this.lineColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.lineTickEnable=[!0,!0,!0],this.lineTickMirror=[!1,!1,!1],this.lineTickLength=[0,0,0],this.lineTickWidth=[1,1,1],this.lineTickColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.gridEnable=[!0,!0,!0],this.gridWidth=[1,1,1],this.gridColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.zeroEnable=[!0,!0,!0],this.zeroLineColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.zeroLineWidth=[2,2,2],this.backgroundEnable=[!1,!1,!1],this.backgroundColor=[[.8,.8,.8,.5],[.8,.8,.8,.5],[.8,.8,.8,.5]],this._firstInit=!0,this._text=null,this._lines=null,this._background=a(t)}var f=u.prototype;function h(){this.primalOffset=[0,0,0],this.primalMinor=[0,0,0],this.mirrorOffset=[0,0,0],this.mirrorMinor=[0,0,0]}f.update=function(t){function e(e,r,n){if(n in t){var i,a=t[n],o=this[n];(e?Array.isArray(a)&&Array.isArray(a[0]):Array.isArray(a))?this[n]=i=[r(a[0]),r(a[1]),r(a[2])]:this[n]=i=[r(a),r(a),r(a)];for(var s=0;s<3;++s)if(i[s]!==o[s])return!0}return!1}t=t||{};var r,a=e.bind(this,!1,Number),o=e.bind(this,!1,Boolean),l=e.bind(this,!1,String),c=e.bind(this,!0,function(t){if(Array.isArray(t)){if(3===t.length)return[+t[0],+t[1],+t[2],1];if(4===t.length)return[+t[0],+t[1],+t[2],+t[3]]}return[0,0,0,1]}),u=!1,f=!1;if(\\\"bounds\\\"in t)for(var h=t.bounds,p=0;p<2;++p)for(var d=0;d<3;++d)h[p][d]!==this.bounds[p][d]&&(f=!0),this.bounds[p][d]=h[p][d];if(\\\"ticks\\\"in t){r=t.ticks,u=!0,this.autoTicks=!1;for(p=0;p<3;++p)this.tickSpacing[p]=0}else a(\\\"tickSpacing\\\")&&(this.autoTicks=!0,f=!0);if(this._firstInit&&(\\\"ticks\\\"in t||\\\"tickSpacing\\\"in t||(this.autoTicks=!0),f=!0,u=!0,this._firstInit=!1),f&&this.autoTicks&&(r=s.create(this.bounds,this.tickSpacing),u=!0),u){for(p=0;p<3;++p)r[p].sort(function(t,e){return t.x-e.x});s.equal(r,this.ticks)?u=!1:this.ticks=r}o(\\\"tickEnable\\\"),l(\\\"tickFont\\\")&&(u=!0),a(\\\"tickSize\\\"),a(\\\"tickAngle\\\"),a(\\\"tickPad\\\"),c(\\\"tickColor\\\");var g=l(\\\"labels\\\");l(\\\"labelFont\\\")&&(g=!0),o(\\\"labelEnable\\\"),a(\\\"labelSize\\\"),a(\\\"labelPad\\\"),c(\\\"labelColor\\\"),o(\\\"lineEnable\\\"),o(\\\"lineMirror\\\"),a(\\\"lineWidth\\\"),c(\\\"lineColor\\\"),o(\\\"lineTickEnable\\\"),o(\\\"lineTickMirror\\\"),a(\\\"lineTickLength\\\"),a(\\\"lineTickWidth\\\"),c(\\\"lineTickColor\\\"),o(\\\"gridEnable\\\"),a(\\\"gridWidth\\\"),c(\\\"gridColor\\\"),o(\\\"zeroEnable\\\"),c(\\\"zeroLineColor\\\"),a(\\\"zeroLineWidth\\\"),o(\\\"backgroundEnable\\\"),c(\\\"backgroundColor\\\"),this._text?this._text&&(g||u)&&this._text.update(this.bounds,this.labels,this.labelFont,this.ticks,this.tickFont):this._text=n(this.gl,this.bounds,this.labels,this.labelFont,this.ticks,this.tickFont),this._lines&&u&&(this._lines.dispose(),this._lines=null),this._lines||(this._lines=i(this.gl,this.bounds,this.ticks))};var p=[new h,new h,new h];function d(t,e,r,n,i){for(var a=t.primalOffset,o=t.primalMinor,s=t.mirrorOffset,l=t.mirrorMinor,c=n[e],u=0;u<3;++u)if(e!==u){var f=a,h=s,p=o,d=l;c&1<<u&&(f=s,h=a,p=l,d=o),f[u]=r[0][u],h[u]=r[1][u],i[u]>0?(p[u]=-1,d[u]=0):(p[u]=0,d[u]=1)}}var g=[0,0,0],v={model:l,view:l,projection:l,_ortho:!1};f.isOpaque=function(){return!0},f.isTransparent=function(){return!1},f.drawTransparent=function(t){};var m=[0,0,0],y=[0,0,0],x=[0,0,0];f.draw=function(t){t=t||v;for(var e=this.gl,r=t.model||l,n=t.view||l,i=t.projection||l,a=this.bounds,s=t._ortho||!1,u=o(r,n,i,a,s),f=u.cubeEdges,h=u.axis,b=n[12],_=n[13],w=n[14],k=n[15],T=(s?2:1)*this.pixelRatio*(i[3]*b+i[7]*_+i[11]*w+i[15]*k)/e.drawingBufferHeight,A=0;A<3;++A)this.lastCubeProps.cubeEdges[A]=f[A],this.lastCubeProps.axis[A]=h[A];var M=p;for(A=0;A<3;++A)d(p[A],A,this.bounds,f,h);e=this.gl;var S,E=g;for(A=0;A<3;++A)this.backgroundEnable[A]?E[A]=h[A]:E[A]=0;this._background.draw(r,n,i,a,E,this.backgroundColor),this._lines.bind(r,n,i,this);for(A=0;A<3;++A){var C=[0,0,0];h[A]>0?C[A]=a[1][A]:C[A]=a[0][A];for(var L=0;L<2;++L){var z=(A+1+L)%3,O=(A+1+(1^L))%3;this.gridEnable[z]&&this._lines.drawGrid(z,O,this.bounds,C,this.gridColor[z],this.gridWidth[z]*this.pixelRatio)}for(L=0;L<2;++L){z=(A+1+L)%3,O=(A+1+(1^L))%3;this.zeroEnable[O]&&Math.min(a[0][O],a[1][O])<=0&&Math.max(a[0][O],a[1][O])>=0&&this._lines.drawZero(z,O,this.bounds,C,this.zeroLineColor[O],this.zeroLineWidth[O]*this.pixelRatio)}}for(A=0;A<3;++A){this.lineEnable[A]&&this._lines.drawAxisLine(A,this.bounds,M[A].primalOffset,this.lineColor[A],this.lineWidth[A]*this.pixelRatio),this.lineMirror[A]&&this._lines.drawAxisLine(A,this.bounds,M[A].mirrorOffset,this.lineColor[A],this.lineWidth[A]*this.pixelRatio);var I=c(m,M[A].primalMinor),D=c(y,M[A].mirrorMinor),P=this.lineTickLength;for(L=0;L<3;++L){var R=T/r[5*L];I[L]*=P[L]*R,D[L]*=P[L]*R}this.lineTickEnable[A]&&this._lines.drawAxisTicks(A,M[A].primalOffset,I,this.lineTickColor[A],this.lineTickWidth[A]*this.pixelRatio),this.lineTickMirror[A]&&this._lines.drawAxisTicks(A,M[A].mirrorOffset,D,this.lineTickColor[A],this.lineTickWidth[A]*this.pixelRatio)}this._lines.unbind(),this._text.bind(r,n,i,this.pixelRatio);var F,B;function N(t){(B=[0,0,0])[t]=1}function j(t,e,r){var n=(t+1)%3,i=(t+2)%3,a=e[n],o=e[i],s=r[n],l=r[i];a>0&&l>0?N(n):a>0&&l<0?N(n):a<0&&l>0?N(n):a<0&&l<0?N(n):o>0&&s>0?N(i):o>0&&s<0?N(i):o<0&&s>0?N(i):o<0&&s<0&&N(i)}for(A=0;A<3;++A){var V=M[A].primalMinor,U=M[A].mirrorMinor,H=c(x,M[A].primalOffset);for(L=0;L<3;++L)this.lineTickEnable[A]&&(H[L]+=T*V[L]*Math.max(this.lineTickLength[L],0)/r[5*L]);var q=[0,0,0];if(q[A]=1,this.tickEnable[A]){-3600===this.tickAngle[A]?(this.tickAngle[A]=0,this.tickAlign[A]=\\\"auto\\\"):this.tickAlign[A]=-1,F=1,\\\"auto\\\"===(S=[this.tickAlign[A],.5,F])[0]?S[0]=0:S[0]=parseInt(\\\"\\\"+S[0]),B=[0,0,0],j(A,V,U);for(L=0;L<3;++L)H[L]+=T*V[L]*this.tickPad[L]/r[5*L];this._text.drawTicks(A,this.tickSize[A],this.tickAngle[A],H,this.tickColor[A],q,B,S)}if(this.labelEnable[A]){F=0,B=[0,0,0],this.labels[A].length>4&&(N(A),F=1),\\\"auto\\\"===(S=[this.labelAlign[A],.5,F])[0]?S[0]=0:S[0]=parseInt(\\\"\\\"+S[0]);for(L=0;L<3;++L)H[L]+=T*V[L]*this.labelPad[L]/r[5*L];H[A]+=.5*(a[0][A]+a[1][A]),this._text.drawLabel(A,this.labelSize[A],this.labelAngle[A],H,this.labelColor[A],[0,0,0],B,S)}}this._text.unbind()},f.dispose=function(){this._text.dispose(),this._lines.dispose(),this._background.dispose(),this._lines=null,this._text=null,this._background=null,this.gl=null}},{\\\"./lib/background.js\\\":233,\\\"./lib/cube.js\\\":234,\\\"./lib/lines.js\\\":235,\\\"./lib/text.js\\\":237,\\\"./lib/ticks.js\\\":238}],233:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){for(var e=[],r=[],s=0,l=0;l<3;++l)for(var c=(l+1)%3,u=(l+2)%3,f=[0,0,0],h=[0,0,0],p=-1;p<=1;p+=2){r.push(s,s+2,s+1,s+1,s+2,s+3),f[l]=p,h[l]=p;for(var d=-1;d<=1;d+=2){f[c]=d;for(var g=-1;g<=1;g+=2)f[u]=g,e.push(f[0],f[1],f[2],h[0],h[1],h[2]),s+=1}var v=c;c=u,u=v}var m=n(t,new Float32Array(e)),y=n(t,new Uint16Array(r),t.ELEMENT_ARRAY_BUFFER),x=i(t,[{buffer:m,type:t.FLOAT,size:3,offset:0,stride:24},{buffer:m,type:t.FLOAT,size:3,offset:12,stride:24}],y),b=a(t);return b.attributes.position.location=0,b.attributes.normal.location=1,new o(t,m,x,b)};var n=t(\\\"gl-buffer\\\"),i=t(\\\"gl-vao\\\"),a=t(\\\"./shaders\\\").bg;function o(t,e,r,n){this.gl=t,this.buffer=e,this.vao=r,this.shader=n}var s=o.prototype;s.draw=function(t,e,r,n,i,a){for(var o=!1,s=0;s<3;++s)o=o||i[s];if(o){var l=this.gl;l.enable(l.POLYGON_OFFSET_FILL),l.polygonOffset(1,2),this.shader.bind(),this.shader.uniforms={model:t,view:e,projection:r,bounds:n,enable:i,colors:a},this.vao.bind(),this.vao.draw(this.gl.TRIANGLES,36),this.vao.unbind(),l.disable(l.POLYGON_OFFSET_FILL)}},s.dispose=function(){this.vao.dispose(),this.buffer.dispose(),this.shader.dispose()}},{\\\"./shaders\\\":236,\\\"gl-buffer\\\":240,\\\"gl-vao\\\":322}],234:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,a,p){i(s,e,t),i(s,r,s);for(var y=0,x=0;x<2;++x){u[2]=a[x][2];for(var b=0;b<2;++b){u[1]=a[b][1];for(var _=0;_<2;++_)u[0]=a[_][0],h(l[y],u,s),y+=1}}for(var w=-1,x=0;x<8;++x){for(var k=l[x][3],T=0;T<3;++T)c[x][T]=l[x][T]/k;p&&(c[x][2]*=-1),k<0&&(w<0?w=x:c[x][2]<c[w][2]&&(w=x))}if(w<0){w=0;for(var A=0;A<3;++A){for(var M=(A+2)%3,S=(A+1)%3,E=-1,C=-1,L=0;L<2;++L){var z=L<<A,O=z+(L<<M)+(1-L<<S),I=z+(1-L<<M)+(L<<S);o(c[z],c[O],c[I],f)<0||(L?E=1:C=1)}if(E<0||C<0)C>E&&(w|=1<<A);else{for(var L=0;L<2;++L){var z=L<<A,O=z+(L<<M)+(1-L<<S),I=z+(1-L<<M)+(L<<S),D=d([l[z],l[O],l[I],l[z+(1<<M)+(1<<S)]]);L?E=D:C=D}C>E&&(w|=1<<A)}}}for(var P=7^w,R=-1,x=0;x<8;++x)x!==w&&x!==P&&(R<0?R=x:c[R][1]>c[x][1]&&(R=x));for(var F=-1,x=0;x<3;++x){var B=R^1<<x;if(B!==w&&B!==P){F<0&&(F=B);var S=c[B];S[0]<c[F][0]&&(F=B)}}for(var N=-1,x=0;x<3;++x){var B=R^1<<x;if(B!==w&&B!==P&&B!==F){N<0&&(N=B);var S=c[B];S[0]>c[N][0]&&(N=B)}}var j=g;j[0]=j[1]=j[2]=0,j[n.log2(F^R)]=R&F,j[n.log2(R^N)]=R&N;var V=7^N;V===w||V===P?(V=7^F,j[n.log2(N^V)]=V&N):j[n.log2(F^V)]=V&F;for(var U=v,H=w,A=0;A<3;++A)U[A]=H&1<<A?-1:1;return m};var n=t(\\\"bit-twiddle\\\"),i=t(\\\"gl-mat4/multiply\\\"),a=t(\\\"split-polygon\\\"),o=t(\\\"robust-orientation\\\"),s=new Array(16),l=new Array(8),c=new Array(8),u=new Array(3),f=[0,0,0];function h(t,e,r){for(var n=0;n<4;++n){t[n]=r[12+n];for(var i=0;i<3;++i)t[n]+=e[i]*r[4*i+n]}}!function(){for(var t=0;t<8;++t)l[t]=[1,1,1,1],c[t]=[1,1,1]}();var p=[[0,0,1,0,0],[0,0,-1,1,0],[0,-1,0,1,0],[0,1,0,1,0],[-1,0,0,1,0],[1,0,0,1,0]];function d(t){for(var e=0;e<p.length;++e)if((t=a.positive(t,p[e])).length<3)return 0;var r=t[0],n=r[0]/r[3],i=r[1]/r[3],o=0;for(e=1;e+1<t.length;++e){var s=t[e],l=t[e+1],c=s[0]/s[3]-n,u=s[1]/s[3]-i,f=l[0]/l[3]-n,h=l[1]/l[3]-i;o+=Math.abs(c*h-u*f)}return o}var g=[1,1,1],v=[0,0,0],m={cubeEdges:g,axis:v}},{\\\"bit-twiddle\\\":85,\\\"gl-mat4/multiply\\\":266,\\\"robust-orientation\\\":497,\\\"split-polygon\\\":514}],235:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){var o=[],s=[0,0,0],l=[0,0,0],c=[0,0,0],u=[0,0,0];o.push(0,0,1,0,1,1,0,0,-1,0,0,-1,0,1,1,0,1,-1);for(var f=0;f<3;++f){for(var h=o.length/3|0,d=0;d<r[f].length;++d){var g=+r[f][d].x;o.push(g,0,1,g,1,1,g,0,-1,g,0,-1,g,1,1,g,1,-1)}var v=o.length/3|0;s[f]=h,l[f]=v-h;for(var h=o.length/3|0,m=0;m<r[f].length;++m){var g=+r[f][m].x;o.push(g,0,1,g,1,1,g,0,-1,g,0,-1,g,1,1,g,1,-1)}var v=o.length/3|0;c[f]=h,u[f]=v-h}var y=n(t,new Float32Array(o)),x=i(t,[{buffer:y,type:t.FLOAT,size:3,stride:0,offset:0}]),b=a(t);return b.attributes.position.location=0,new p(t,y,x,b,l,s,u,c)};var n=t(\\\"gl-buffer\\\"),i=t(\\\"gl-vao\\\"),a=t(\\\"./shaders\\\").line,o=[0,0,0],s=[0,0,0],l=[0,0,0],c=[0,0,0],u=[1,1];function f(t){return t[0]=t[1]=t[2]=0,t}function h(t,e){return t[0]=e[0],t[1]=e[1],t[2]=e[2],t}function p(t,e,r,n,i,a,o,s){this.gl=t,this.vertBuffer=e,this.vao=r,this.shader=n,this.tickCount=i,this.tickOffset=a,this.gridCount=o,this.gridOffset=s}var d=p.prototype;d.bind=function(t,e,r){this.shader.bind(),this.shader.uniforms.model=t,this.shader.uniforms.view=e,this.shader.uniforms.projection=r,u[0]=this.gl.drawingBufferWidth,u[1]=this.gl.drawingBufferHeight,this.shader.uniforms.screenShape=u,this.vao.bind()},d.unbind=function(){this.vao.unbind()},d.drawAxisLine=function(t,e,r,n,i){var a=f(s);this.shader.uniforms.majorAxis=s,a[t]=e[1][t]-e[0][t],this.shader.uniforms.minorAxis=a;var o,u=h(c,r);u[t]+=e[0][t],this.shader.uniforms.offset=u,this.shader.uniforms.lineWidth=i,this.shader.uniforms.color=n,(o=f(l))[(t+2)%3]=1,this.shader.uniforms.screenAxis=o,this.vao.draw(this.gl.TRIANGLES,6),(o=f(l))[(t+1)%3]=1,this.shader.uniforms.screenAxis=o,this.vao.draw(this.gl.TRIANGLES,6)},d.drawAxisTicks=function(t,e,r,n,i){if(this.tickCount[t]){var a=f(o);a[t]=1,this.shader.uniforms.majorAxis=a,this.shader.uniforms.offset=e,this.shader.uniforms.minorAxis=r,this.shader.uniforms.color=n,this.shader.uniforms.lineWidth=i;var s=f(l);s[t]=1,this.shader.uniforms.screenAxis=s,this.vao.draw(this.gl.TRIANGLES,this.tickCount[t],this.tickOffset[t])}},d.drawGrid=function(t,e,r,n,i,a){if(this.gridCount[t]){var u=f(s);u[e]=r[1][e]-r[0][e],this.shader.uniforms.minorAxis=u;var p=h(c,n);p[e]+=r[0][e],this.shader.uniforms.offset=p;var d=f(o);d[t]=1,this.shader.uniforms.majorAxis=d;var g=f(l);g[t]=1,this.shader.uniforms.screenAxis=g,this.shader.uniforms.lineWidth=a,this.shader.uniforms.color=i,this.vao.draw(this.gl.TRIANGLES,this.gridCount[t],this.gridOffset[t])}},d.drawZero=function(t,e,r,n,i,a){var o=f(s);this.shader.uniforms.majorAxis=o,o[t]=r[1][t]-r[0][t],this.shader.uniforms.minorAxis=o;var u=h(c,n);u[t]+=r[0][t],this.shader.uniforms.offset=u;var p=f(l);p[e]=1,this.shader.uniforms.screenAxis=p,this.shader.uniforms.lineWidth=a,this.shader.uniforms.color=i,this.vao.draw(this.gl.TRIANGLES,6)},d.dispose=function(){this.vao.dispose(),this.vertBuffer.dispose(),this.shader.dispose()}},{\\\"./shaders\\\":236,\\\"gl-buffer\\\":240,\\\"gl-vao\\\":322}],236:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"glslify\\\"),i=t(\\\"gl-shader\\\"),a=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec3 position;\\\\n\\\\nuniform mat4 model, view, projection;\\\\nuniform vec3 offset, majorAxis, minorAxis, screenAxis;\\\\nuniform float lineWidth;\\\\nuniform vec2 screenShape;\\\\n\\\\nvec3 project(vec3 p) {\\\\n  vec4 pp = projection * view * model * vec4(p, 1.0);\\\\n  return pp.xyz / max(pp.w, 0.0001);\\\\n}\\\\n\\\\nvoid main() {\\\\n  vec3 major = position.x * majorAxis;\\\\n  vec3 minor = position.y * minorAxis;\\\\n\\\\n  vec3 vPosition = major + minor + offset;\\\\n  vec3 pPosition = project(vPosition);\\\\n  vec3 offset = project(vPosition + screenAxis * position.z);\\\\n\\\\n  vec2 screen = normalize((offset - pPosition).xy * screenShape) / screenShape;\\\\n\\\\n  gl_Position = vec4(pPosition + vec3(0.5 * screen * lineWidth, 0), 1.0);\\\\n}\\\\n\\\"]),o=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nuniform vec4 color;\\\\nvoid main() {\\\\n  gl_FragColor = color;\\\\n}\\\"]);r.line=function(t){return i(t,a,o,null,[{name:\\\"position\\\",type:\\\"vec3\\\"}])};var s=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec3 position;\\\\n\\\\nuniform mat4 model, view, projection;\\\\nuniform vec3 offset, axis, alignDir, alignOpt;\\\\nuniform float scale, angle, pixelScale;\\\\nuniform vec2 resolution;\\\\n\\\\nvec3 project(vec3 p) {\\\\n  vec4 pp = projection * view * model * vec4(p, 1.0);\\\\n  return pp.xyz / max(pp.w, 0.0001);\\\\n}\\\\n\\\\nfloat computeViewAngle(vec3 a, vec3 b) {\\\\n  vec3 A = project(a);\\\\n  vec3 B = project(b);\\\\n\\\\n  return atan(\\\\n    (B.y - A.y) * resolution.y,\\\\n    (B.x - A.x) * resolution.x\\\\n  );\\\\n}\\\\n\\\\nconst float PI = 3.141592;\\\\nconst float TWO_PI = 2.0 * PI;\\\\nconst float HALF_PI = 0.5 * PI;\\\\nconst float ONE_AND_HALF_PI = 1.5 * PI;\\\\n\\\\nint option = int(floor(alignOpt.x + 0.001));\\\\nfloat hv_ratio =       alignOpt.y;\\\\nbool enableAlign =    (alignOpt.z != 0.0);\\\\n\\\\nfloat mod_angle(float a) {\\\\n  return mod(a, PI);\\\\n}\\\\n\\\\nfloat positive_angle(float a) {\\\\n  return mod_angle((a < 0.0) ?\\\\n    a + TWO_PI :\\\\n    a\\\\n  );\\\\n}\\\\n\\\\nfloat look_upwards(float a) {\\\\n  float b = positive_angle(a);\\\\n  return ((b > HALF_PI) && (b <= ONE_AND_HALF_PI)) ?\\\\n    b - PI :\\\\n    b;\\\\n}\\\\n\\\\nfloat look_horizontal_or_vertical(float a, float ratio) {\\\\n  // ratio controls the ratio between being horizontal to (vertical + horizontal)\\\\n  // if ratio is set to 0.5 then it is 50%, 50%.\\\\n  // when using a higher ratio e.g. 0.75 the result would\\\\n  // likely be more horizontal than vertical.\\\\n\\\\n  float b = positive_angle(a);\\\\n\\\\n  return\\\\n    (b < (      ratio) * HALF_PI) ? 0.0 :\\\\n    (b < (2.0 - ratio) * HALF_PI) ? -HALF_PI :\\\\n    (b < (2.0 + ratio) * HALF_PI) ? 0.0 :\\\\n    (b < (4.0 - ratio) * HALF_PI) ? HALF_PI :\\\\n                                    0.0;\\\\n}\\\\n\\\\nfloat roundTo(float a, float b) {\\\\n  return float(b * floor((a + 0.5 * b) / b));\\\\n}\\\\n\\\\nfloat look_round_n_directions(float a, int n) {\\\\n  float b = positive_angle(a);\\\\n  float div = TWO_PI / float(n);\\\\n  float c = roundTo(b, div);\\\\n  return look_upwards(c);\\\\n}\\\\n\\\\nfloat applyAlignOption(float rawAngle, float delta) {\\\\n  return\\\\n    (option >  2) ? look_round_n_directions(rawAngle + delta, option) :       // option 3-n: round to n directions\\\\n    (option == 2) ? look_horizontal_or_vertical(rawAngle + delta, hv_ratio) : // horizontal or vertical\\\\n    (option == 1) ? rawAngle + delta :       // use free angle, and flip to align with one direction of the axis\\\\n    (option == 0) ? look_upwards(rawAngle) : // use free angle, and stay upwards\\\\n    (option ==-1) ? 0.0 :                    // useful for backward compatibility, all texts remains horizontal\\\\n                    rawAngle;                // otherwise return back raw input angle\\\\n}\\\\n\\\\nbool isAxisTitle = (axis.x == 0.0) &&\\\\n                   (axis.y == 0.0) &&\\\\n                   (axis.z == 0.0);\\\\n\\\\nvoid main() {\\\\n  //Compute world offset\\\\n  float axisDistance = position.z;\\\\n  vec3 dataPosition = axisDistance * axis + offset;\\\\n\\\\n  float beta = angle; // i.e. user defined attributes for each tick\\\\n\\\\n  float axisAngle;\\\\n  float clipAngle;\\\\n  float flip;\\\\n\\\\n  if (enableAlign) {\\\\n    axisAngle = (isAxisTitle) ? HALF_PI :\\\\n                      computeViewAngle(dataPosition, dataPosition + axis);\\\\n    clipAngle = computeViewAngle(dataPosition, dataPosition + alignDir);\\\\n\\\\n    axisAngle += (sin(axisAngle) < 0.0) ? PI : 0.0;\\\\n    clipAngle += (sin(clipAngle) < 0.0) ? PI : 0.0;\\\\n\\\\n    flip = (dot(vec2(cos(axisAngle), sin(axisAngle)),\\\\n                vec2(sin(clipAngle),-cos(clipAngle))) > 0.0) ? 1.0 : 0.0;\\\\n\\\\n    beta += applyAlignOption(clipAngle, flip * PI);\\\\n  }\\\\n\\\\n  //Compute plane offset\\\\n  vec2 planeCoord = position.xy * pixelScale;\\\\n\\\\n  mat2 planeXform = scale * mat2(\\\\n     cos(beta), sin(beta),\\\\n    -sin(beta), cos(beta)\\\\n  );\\\\n\\\\n  vec2 viewOffset = 2.0 * planeXform * planeCoord / resolution;\\\\n\\\\n  //Compute clip position\\\\n  vec3 clipPosition = project(dataPosition);\\\\n\\\\n  //Apply text offset in clip coordinates\\\\n  clipPosition += vec3(viewOffset, 0.0);\\\\n\\\\n  //Done\\\\n  gl_Position = vec4(clipPosition, 1.0);\\\\n}\\\"]),l=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nuniform vec4 color;\\\\nvoid main() {\\\\n  gl_FragColor = color;\\\\n}\\\"]);r.text=function(t){return i(t,s,l,null,[{name:\\\"position\\\",type:\\\"vec3\\\"}])};var c=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec3 position;\\\\nattribute vec3 normal;\\\\n\\\\nuniform mat4 model, view, projection;\\\\nuniform vec3 enable;\\\\nuniform vec3 bounds[2];\\\\n\\\\nvarying vec3 colorChannel;\\\\n\\\\nvoid main() {\\\\n\\\\n  vec3 signAxis = sign(bounds[1] - bounds[0]);\\\\n\\\\n  vec3 realNormal = signAxis * normal;\\\\n\\\\n  if(dot(realNormal, enable) > 0.0) {\\\\n    vec3 minRange = min(bounds[0], bounds[1]);\\\\n    vec3 maxRange = max(bounds[0], bounds[1]);\\\\n    vec3 nPosition = mix(minRange, maxRange, 0.5 * (position + 1.0));\\\\n    gl_Position = projection * view * model * vec4(nPosition, 1.0);\\\\n  } else {\\\\n    gl_Position = vec4(0,0,0,0);\\\\n  }\\\\n\\\\n  colorChannel = abs(realNormal);\\\\n}\\\"]),u=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nuniform vec4 colors[3];\\\\n\\\\nvarying vec3 colorChannel;\\\\n\\\\nvoid main() {\\\\n  gl_FragColor = colorChannel.x * colors[0] +\\\\n                 colorChannel.y * colors[1] +\\\\n                 colorChannel.z * colors[2];\\\\n}\\\"]);r.bg=function(t){return i(t,c,u,null,[{name:\\\"position\\\",type:\\\"vec3\\\"},{name:\\\"normal\\\",type:\\\"vec3\\\"}])}},{\\\"gl-shader\\\":300,glslify:404}],237:[function(t,e,r){(function(r){\\\"use strict\\\";e.exports=function(t,e,r,a,s,l){var u=n(t),f=i(t,[{buffer:u,size:3}]),h=o(t);h.attributes.position.location=0;var p=new c(t,h,u,f);return p.update(e,r,a,s,l),p};var n=t(\\\"gl-buffer\\\"),i=t(\\\"gl-vao\\\"),a=t(\\\"vectorize-text\\\"),o=t(\\\"./shaders\\\").text,s=window||r.global||{},l=s.__TEXT_CACHE||{};s.__TEXT_CACHE={};function c(t,e,r,n){this.gl=t,this.shader=e,this.buffer=r,this.vao=n,this.tickOffset=this.tickCount=this.labelOffset=this.labelCount=null}var u=c.prototype,f=[0,0];u.bind=function(t,e,r,n){this.vao.bind(),this.shader.bind();var i=this.shader.uniforms;i.model=t,i.view=e,i.projection=r,i.pixelScale=n,f[0]=this.gl.drawingBufferWidth,f[1]=this.gl.drawingBufferHeight,this.shader.uniforms.resolution=f},u.unbind=function(){this.vao.unbind()},u.update=function(t,e,r,n,i){var o=[];function s(t,e,r,n,i,s){var c=l[r];c||(c=l[r]={});var u=c[e];u||(u=c[e]=function(t,e){try{return a(t,e)}catch(e){return console.warn('error vectorizing text:\\\"'+t+'\\\" error:',e),{cells:[],positions:[]}}}(e,{triangles:!0,font:r,textAlign:\\\"center\\\",textBaseline:\\\"middle\\\",lineSpacing:i,styletags:s}));for(var f=(n||12)/12,h=u.positions,p=u.cells,d=0,g=p.length;d<g;++d)for(var v=p[d],m=2;m>=0;--m){var y=h[v[m]];o.push(f*y[0],-f*y[1],t)}}for(var c=[0,0,0],u=[0,0,0],f=[0,0,0],h=[0,0,0],p={breaklines:!0,bolds:!0,italics:!0,subscripts:!0,superscripts:!0},d=0;d<3;++d){f[d]=o.length/3|0,s(.5*(t[0][d]+t[1][d]),e[d],r[d],12,1.25,p),h[d]=(o.length/3|0)-f[d],c[d]=o.length/3|0;for(var g=0;g<n[d].length;++g)n[d][g].text&&s(n[d][g].x,n[d][g].text,n[d][g].font||i,n[d][g].fontSize||12,1.25,p);u[d]=(o.length/3|0)-c[d]}this.buffer.update(o),this.tickOffset=c,this.tickCount=u,this.labelOffset=f,this.labelCount=h},u.drawTicks=function(t,e,r,n,i,a,o,s){this.tickCount[t]&&(this.shader.uniforms.axis=a,this.shader.uniforms.color=i,this.shader.uniforms.angle=r,this.shader.uniforms.scale=e,this.shader.uniforms.offset=n,this.shader.uniforms.alignDir=o,this.shader.uniforms.alignOpt=s,this.vao.draw(this.gl.TRIANGLES,this.tickCount[t],this.tickOffset[t]))},u.drawLabel=function(t,e,r,n,i,a,o,s){this.labelCount[t]&&(this.shader.uniforms.axis=a,this.shader.uniforms.color=i,this.shader.uniforms.angle=r,this.shader.uniforms.scale=e,this.shader.uniforms.offset=n,this.shader.uniforms.alignDir=o,this.shader.uniforms.alignOpt=s,this.vao.draw(this.gl.TRIANGLES,this.labelCount[t],this.labelOffset[t]))},u.dispose=function(){this.shader.dispose(),this.vao.dispose(),this.buffer.dispose()}}).call(this,t(\\\"_process\\\"))},{\\\"./shaders\\\":236,_process:477,\\\"gl-buffer\\\":240,\\\"gl-vao\\\":322,\\\"vectorize-text\\\":537}],238:[function(t,e,r){\\\"use strict\\\";function n(t,e){var r=t+\\\"\\\",n=r.indexOf(\\\".\\\"),i=0;n>=0&&(i=r.length-n-1);var a=Math.pow(10,i),o=Math.round(t*e*a),s=o+\\\"\\\";if(s.indexOf(\\\"e\\\")>=0)return s;var l=o/a,c=o%a;o<0?(l=0|-Math.ceil(l),c=0|-c):(l=0|Math.floor(l),c|=0);var u=\\\"\\\"+l;if(o<0&&(u=\\\"-\\\"+u),i){for(var f=\\\"\\\"+c;f.length<i;)f=\\\"0\\\"+f;return u+\\\".\\\"+f}return u}r.create=function(t,e){for(var r=[],i=0;i<3;++i){for(var a=[],o=(t[0][i],t[1][i],0);o*e[i]<=t[1][i];++o)a.push({x:o*e[i],text:n(e[i],o)});for(var o=-1;o*e[i]>=t[0][i];--o)a.push({x:o*e[i],text:n(e[i],o)});r.push(a)}return r},r.equal=function(t,e){for(var r=0;r<3;++r){if(t[r].length!==e[r].length)return!1;for(var n=0;n<t[r].length;++n){var i=t[r][n],a=e[r][n];if(i.x!==a.x||i.text!==a.text||i.font!==a.font||i.fontColor!==a.fontColor||i.fontSize!==a.fontSize||i.dx!==a.dx||i.dy!==a.dy)return!1}}return!0}},{}],239:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,l,f){var h=e.model||c,p=e.view||c,m=e.projection||c,y=e._ortho||!1,x=t.bounds,b=(f=f||a(h,p,m,x,y)).axis;o(u,p,h),o(u,m,u);for(var _=g,w=0;w<3;++w)_[w].lo=1/0,_[w].hi=-1/0,_[w].pixelsPerDataUnit=1/0;var k=n(s(u,u));s(u,u);for(var T=0;T<3;++T){var A=(T+1)%3,M=(T+2)%3,S=v;t:for(var w=0;w<2;++w){var E=[];if(b[T]<0!=!!w){S[T]=x[w][T];for(var C=0;C<2;++C){S[A]=x[C^w][A];for(var L=0;L<2;++L)S[M]=x[L^C^w][M],E.push(S.slice())}for(var z=y?5:4,C=z;C===z;++C){if(0===E.length)continue t;E=i.positive(E,k[C])}for(var C=0;C<E.length;++C)for(var M=E[C],O=d(v,u,M,r,l),L=0;L<3;++L)_[L].lo=Math.min(_[L].lo,M[L]),_[L].hi=Math.max(_[L].hi,M[L]),L!==T&&(_[L].pixelsPerDataUnit=Math.min(_[L].pixelsPerDataUnit,Math.abs(O[L])))}}}return _};var n=t(\\\"extract-frustum-planes\\\"),i=t(\\\"split-polygon\\\"),a=t(\\\"./lib/cube.js\\\"),o=t(\\\"gl-mat4/multiply\\\"),s=t(\\\"gl-mat4/transpose\\\"),l=t(\\\"gl-vec4/transformMat4\\\"),c=new Float32Array([1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1]),u=new Float32Array(16);function f(t,e,r){this.lo=t,this.hi=e,this.pixelsPerDataUnit=r}var h=[0,0,0,1],p=[0,0,0,1];function d(t,e,r,n,i){for(var a=0;a<3;++a){for(var o=h,s=p,c=0;c<3;++c)s[c]=o[c]=r[c];s[3]=o[3]=1,s[a]+=1,l(s,s,e),s[3]<0&&(t[a]=1/0),o[a]-=1,l(o,o,e),o[3]<0&&(t[a]=1/0);var u=(o[0]/o[3]-s[0]/s[3])*n,f=(o[1]/o[3]-s[1]/s[3])*i;t[a]=.25*Math.sqrt(u*u+f*f)}return t}var g=[new f(1/0,-1/0,1/0),new f(1/0,-1/0,1/0),new f(1/0,-1/0,1/0)],v=[0,0,0]},{\\\"./lib/cube.js\\\":234,\\\"extract-frustum-planes\\\":223,\\\"gl-mat4/multiply\\\":266,\\\"gl-mat4/transpose\\\":275,\\\"gl-vec4/transformMat4\\\":393,\\\"split-polygon\\\":514}],240:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"typedarray-pool\\\"),i=t(\\\"ndarray-ops\\\"),a=t(\\\"ndarray\\\"),o=[\\\"uint8\\\",\\\"uint8_clamped\\\",\\\"uint16\\\",\\\"uint32\\\",\\\"int8\\\",\\\"int16\\\",\\\"int32\\\",\\\"float32\\\"];function s(t,e,r,n,i){this.gl=t,this.type=e,this.handle=r,this.length=n,this.usage=i}var l=s.prototype;function c(t,e,r,n,i,a){var o=i.length*i.BYTES_PER_ELEMENT;if(a<0)return t.bufferData(e,i,n),o;if(o+a>r)throw new Error(\\\"gl-buffer: If resizing buffer, must not specify offset\\\");return t.bufferSubData(e,a,i),r}function u(t,e){for(var r=n.malloc(t.length,e),i=t.length,a=0;a<i;++a)r[a]=t[a];return r}l.bind=function(){this.gl.bindBuffer(this.type,this.handle)},l.unbind=function(){this.gl.bindBuffer(this.type,null)},l.dispose=function(){this.gl.deleteBuffer(this.handle)},l.update=function(t,e){if(\\\"number\\\"!=typeof e&&(e=-1),this.bind(),\\\"object\\\"==typeof t&&\\\"undefined\\\"!=typeof t.shape){var r=t.dtype;if(o.indexOf(r)<0&&(r=\\\"float32\\\"),this.type===this.gl.ELEMENT_ARRAY_BUFFER)r=gl.getExtension(\\\"OES_element_index_uint\\\")&&\\\"uint16\\\"!==r?\\\"uint32\\\":\\\"uint16\\\";if(r===t.dtype&&function(t,e){for(var r=1,n=e.length-1;n>=0;--n){if(e[n]!==r)return!1;r*=t[n]}return!0}(t.shape,t.stride))0===t.offset&&t.data.length===t.shape[0]?this.length=c(this.gl,this.type,this.length,this.usage,t.data,e):this.length=c(this.gl,this.type,this.length,this.usage,t.data.subarray(t.offset,t.shape[0]),e);else{var s=n.malloc(t.size,r),l=a(s,t.shape);i.assign(l,t),this.length=c(this.gl,this.type,this.length,this.usage,e<0?s:s.subarray(0,t.size),e),n.free(s)}}else if(Array.isArray(t)){var f;f=this.type===this.gl.ELEMENT_ARRAY_BUFFER?u(t,\\\"uint16\\\"):u(t,\\\"float32\\\"),this.length=c(this.gl,this.type,this.length,this.usage,e<0?f:f.subarray(0,t.length),e),n.free(f)}else if(\\\"object\\\"==typeof t&&\\\"number\\\"==typeof t.length)this.length=c(this.gl,this.type,this.length,this.usage,t,e);else{if(\\\"number\\\"!=typeof t&&void 0!==t)throw new Error(\\\"gl-buffer: Invalid data type\\\");if(e>=0)throw new Error(\\\"gl-buffer: Cannot specify offset when resizing buffer\\\");(t|=0)<=0&&(t=1),this.gl.bufferData(this.type,0|t,this.usage),this.length=t}},e.exports=function(t,e,r,n){if(r=r||t.ARRAY_BUFFER,n=n||t.DYNAMIC_DRAW,r!==t.ARRAY_BUFFER&&r!==t.ELEMENT_ARRAY_BUFFER)throw new Error(\\\"gl-buffer: Invalid type for webgl buffer, must be either gl.ARRAY_BUFFER or gl.ELEMENT_ARRAY_BUFFER\\\");if(n!==t.DYNAMIC_DRAW&&n!==t.STATIC_DRAW&&n!==t.STREAM_DRAW)throw new Error(\\\"gl-buffer: Invalid usage for buffer, must be either gl.DYNAMIC_DRAW, gl.STATIC_DRAW or gl.STREAM_DRAW\\\");var i=t.createBuffer(),a=new s(t,r,i,0,n);return a.update(e),a}},{ndarray:445,\\\"ndarray-ops\\\":439,\\\"typedarray-pool\\\":532}],241:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-vec3\\\"),i=function(t,e){for(var r=0;r<t.length;r++)if(t[r]>=e)return r-1;return r},a=n.create(),o=n.create(),s=function(t,e,r){return t<e?e:t>r?r:t},l=function(t,e,r,l){var c=t[0],u=t[1],f=t[2],h=r[0].length,p=r[1].length,d=r[2].length,g=i(r[0],c),v=i(r[1],u),m=i(r[2],f),y=g+1,x=v+1,b=m+1;if(l&&(g=s(g,0,h-1),y=s(y,0,h-1),v=s(v,0,p-1),x=s(x,0,p-1),m=s(m,0,d-1),b=s(b,0,d-1)),g<0||v<0||m<0||y>=h||x>=p||b>=d)return n.create();var _=(c-r[0][g])/(r[0][y]-r[0][g]),w=(u-r[1][v])/(r[1][x]-r[1][v]),k=(f-r[2][m])/(r[2][b]-r[2][m]);(_<0||_>1||isNaN(_))&&(_=0),(w<0||w>1||isNaN(w))&&(w=0),(k<0||k>1||isNaN(k))&&(k=0);var T=m*h*p,A=b*h*p,M=v*h,S=x*h,E=g,C=y,L=e[M+T+E],z=e[M+T+C],O=e[S+T+E],I=e[S+T+C],D=e[M+A+E],P=e[M+A+C],R=e[S+A+E],F=e[S+A+C],B=n.create();return n.lerp(B,L,z,_),n.lerp(a,O,I,_),n.lerp(B,B,a,w),n.lerp(a,D,P,_),n.lerp(o,R,F,_),n.lerp(a,a,o,w),n.lerp(B,B,a,k),B};e.exports=function(t,e){var r;r=t.positions?t.positions:function(t){for(var e=t[0],r=t[1],n=t[2],i=[],a=0;a<n.length;a++)for(var o=0;o<r.length;o++)for(var s=0;s<e.length;s++)i.push([n[a],r[o],e[s]]);return i}(t.meshgrid);var i=t.meshgrid,a=t.vectors,o={positions:[],vertexIntensity:[],vertexIntensityBounds:t.vertexIntensityBounds,vertexNormals:[],vectors:[],cells:[],coneOffset:t.coneOffset,colormap:t.colormap};if(0===t.positions.length)return e&&(e[0]=[0,0,0],e[1]=[0,0,0]),o;for(var s=0,c=1/0,u=-1/0,f=1/0,h=-1/0,p=1/0,d=-1/0,g=null,v=null,m=[],y=1/0,x=0;x<r.length;x++){var b,_=r[x];c=Math.min(_[0],c),u=Math.max(_[0],u),f=Math.min(_[1],f),h=Math.max(_[1],h),p=Math.min(_[2],p),d=Math.max(_[2],d),b=i?l(_,a,i,!0):a[x],n.length(b)>s&&(s=n.length(b)),x&&(y=Math.min(y,2*n.distance(g,_)/(n.length(v)+n.length(b)))),g=_,v=b,m.push(b)}var w=[c,f,p],k=[u,h,d];e&&(e[0]=w,e[1]=k),0===s&&(s=1);var T=1/s;isFinite(y)&&!isNaN(y)||(y=1),o.vectorScale=y;var A=function(t,e,r){var i=n.create();return void 0!==t&&n.set(i,t,e,r),i}(0,1,0),M=t.coneSize||.5;t.absoluteConeSize&&(M=t.absoluteConeSize*T),o.coneScale=M;x=0;for(var S=0;x<r.length;x++)for(var E=(_=r[x])[0],C=_[1],L=_[2],z=m[x],O=n.length(z)*T,I=0;I<8;I++){o.positions.push([E,C,L,S++]),o.positions.push([E,C,L,S++]),o.positions.push([E,C,L,S++]),o.positions.push([E,C,L,S++]),o.positions.push([E,C,L,S++]),o.positions.push([E,C,L,S++]),o.vectors.push(z),o.vectors.push(z),o.vectors.push(z),o.vectors.push(z),o.vectors.push(z),o.vectors.push(z),o.vertexIntensity.push(O,O,O),o.vertexIntensity.push(O,O,O),o.vertexNormals.push(A,A,A),o.vertexNormals.push(A,A,A);var D=o.positions.length;o.cells.push([D-6,D-5,D-4],[D-3,D-2,D-1])}return o},e.exports.createConeMesh=t(\\\"./lib/conemesh\\\")},{\\\"./lib/conemesh\\\":242,\\\"gl-vec3\\\":341}],242:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-shader\\\"),i=t(\\\"gl-buffer\\\"),a=t(\\\"gl-vao\\\"),o=t(\\\"gl-texture2d\\\"),s=t(\\\"normals\\\"),l=t(\\\"gl-mat4/multiply\\\"),c=t(\\\"gl-mat4/invert\\\"),u=t(\\\"ndarray\\\"),f=t(\\\"colormap\\\"),h=t(\\\"simplicial-complex-contour\\\"),p=t(\\\"typedarray-pool\\\"),d=t(\\\"./shaders\\\"),g=d.meshShader,v=d.pickShader,m=[1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1];function y(t,e,r,n,i,a,o,s,l,c,u,f,h,p,d,g,v,y,x,b,_,w,k,T){this.gl=t,this.pixelRatio=1,this.cells=[],this.positions=[],this.intensity=[],this.texture=e,this.dirty=!0,this.triShader=r,this.pickShader=n,this.trianglePositions=i,this.triangleVectors=a,this.triangleColors=s,this.triangleNormals=c,this.triangleUVs=l,this.triangleIds=o,this.triangleVAO=u,this.triangleCount=0,this.lineWidth=1,this.edgePositions=f,this.edgeColors=p,this.edgeUVs=d,this.edgeIds=h,this.edgeVAO=g,this.edgeCount=0,this.pointPositions=v,this.pointColors=x,this.pointUVs=b,this.pointSizes=_,this.pointIds=y,this.pointVAO=w,this.pointCount=0,this.contourLineWidth=1,this.contourPositions=k,this.contourVAO=T,this.contourCount=0,this.contourColor=[0,0,0],this.contourEnable=!0,this.pickId=1,this.bounds=[[1/0,1/0,1/0],[-1/0,-1/0,-1/0]],this.clipBounds=[[-1/0,-1/0,-1/0],[1/0,1/0,1/0]],this.lightPosition=[1e5,1e5,0],this.ambientLight=.8,this.diffuseLight=.8,this.specularLight=2,this.roughness=.5,this.fresnel=1.5,this.opacity=1,this.coneScale=2,this.vectorScale=1,this.coneOffset=.25,this._model=m,this._view=m,this._projection=m,this._resolution=[1,1]}var x=y.prototype;function b(t){var e=n(t,v.vertex,v.fragment,null,v.attributes);return e.attributes.position.location=0,e.attributes.id.location=1,e.attributes.vector.location=5,e}x.isOpaque=function(){return this.opacity>=1},x.isTransparent=function(){return this.opacity<1},x.pickSlots=1,x.setPickBase=function(t){this.pickId=t},x.highlight=function(t){if(t&&this.contourEnable){for(var e=h(this.cells,this.intensity,t.intensity),r=e.cells,n=e.vertexIds,i=e.vertexWeights,a=r.length,o=p.mallocFloat32(6*a),s=0,l=0;l<a;++l)for(var c=r[l],u=0;u<2;++u){var f=c[0];2===c.length&&(f=c[u]);for(var d=n[f][0],g=n[f][1],v=i[f],m=1-v,y=this.positions[d],x=this.positions[g],b=0;b<3;++b)o[s++]=v*y[b]+m*x[b]}this.contourCount=s/3|0,this.contourPositions.update(o.subarray(0,s)),p.free(o)}else this.contourCount=0},x.update=function(t){t=t||{};var e=this.gl;this.dirty=!0,\\\"contourEnable\\\"in t&&(this.contourEnable=t.contourEnable),\\\"contourColor\\\"in t&&(this.contourColor=t.contourColor),\\\"lineWidth\\\"in t&&(this.lineWidth=t.lineWidth),\\\"lightPosition\\\"in t&&(this.lightPosition=t.lightPosition),\\\"opacity\\\"in t&&(this.opacity=t.opacity),\\\"ambient\\\"in t&&(this.ambientLight=t.ambient),\\\"diffuse\\\"in t&&(this.diffuseLight=t.diffuse),\\\"specular\\\"in t&&(this.specularLight=t.specular),\\\"roughness\\\"in t&&(this.roughness=t.roughness),\\\"fresnel\\\"in t&&(this.fresnel=t.fresnel),void 0!==t.vectorScale&&(this.vectorScale=t.vectorScale),void 0!==t.coneScale&&(this.coneScale=t.coneScale),void 0!==t.coneOffset&&(this.coneOffset=t.coneOffset),t.texture?(this.texture.dispose(),this.texture=o(e,t.texture)):t.colormap&&(this.texture.shape=[256,256],this.texture.minFilter=e.LINEAR_MIPMAP_LINEAR,this.texture.magFilter=e.LINEAR,this.texture.setPixels(function(t){for(var e=f({colormap:t,nshades:256,format:\\\"rgba\\\"}),r=new Uint8Array(1024),n=0;n<256;++n){for(var i=e[n],a=0;a<3;++a)r[4*n+a]=i[a];r[4*n+3]=255*i[3]}return u(r,[256,256,4],[4,0,1])}(t.colormap)),this.texture.generateMipmap());var r=t.cells,n=t.positions,i=t.vectors;if(n&&r&&i){var a=[],l=[],c=[],h=[],p=[],d=[],g=[],v=[],m=[],y=[],x=[],b=[],_=[],w=[],k=[];this.cells=r,this.positions=n;var T=t.vertexNormals,A=t.cellNormals,M=void 0===t.vertexNormalsEpsilon?1e-6:t.vertexNormalsEpsilon,S=void 0===t.faceNormalsEpsilon?1e-6:t.faceNormalsEpsilon;t.useFacetNormals&&!A&&(A=s.faceNormals(r,n,S)),A||T||(T=s.vertexNormals(r,n,M));var E=t.vertexColors,C=t.cellColors,L=t.meshColor||[1,1,1,1],z=t.vertexUVs,O=t.vertexIntensity,I=t.cellUVs,D=t.cellIntensity,P=1/0,R=-1/0;if(!z&&!I)if(O)if(t.vertexIntensityBounds)P=+t.vertexIntensityBounds[0],R=+t.vertexIntensityBounds[1];else for(var F=0;F<O.length;++F){var B=O[F];P=Math.min(P,B),R=Math.max(R,B)}else if(D)for(F=0;F<D.length;++F){B=D[F];P=Math.min(P,B),R=Math.max(R,B)}else for(F=0;F<n.length;++F){B=n[F][2];P=Math.min(P,B),R=Math.max(R,B)}this.intensity=O||(D?function(t,e,r){for(var n=new Array(e),i=0;i<e;++i)n[i]=0;var a=t.length;for(i=0;i<a;++i)for(var o=t[i],s=0;s<o.length;++s)n[o[s]]=r[i];return n}(r,n.length,D):function(t){for(var e=t.length,r=new Array(e),n=0;n<e;++n)r[n]=t[n][2];return r}(n));var N=t.pointSizes,j=t.pointSize||1;this.bounds=[[1/0,1/0,1/0],[-1/0,-1/0,-1/0]];for(F=0;F<n.length;++F)for(var V=n[F],U=0;U<3;++U)!isNaN(V[U])&&isFinite(V[U])&&(this.bounds[0][U]=Math.min(this.bounds[0][U],V[U]),this.bounds[1][U]=Math.max(this.bounds[1][U],V[U]));var H=0,q=0,G=0;t:for(F=0;F<r.length;++F){var Y=r[F];switch(Y.length){case 1:for(V=n[X=Y[0]],U=0;U<3;++U)if(isNaN(V[U])||!isFinite(V[U]))continue t;x.push(V[0],V[1],V[2],V[3]),3===(Z=E?E[X]:C?C[F]:L).length?b.push(Z[0],Z[1],Z[2],1):b.push(Z[0],Z[1],Z[2],Z[3]),$=z?z[X]:O?[(O[X]-P)/(R-P),0]:I?I[F]:D?[(D[F]-P)/(R-P),0]:[(V[2]-P)/(R-P),0],_.push($[0],$[1]),N?w.push(N[X]):w.push(j),k.push(F),G+=1;break;case 2:for(U=0;U<2;++U){V=n[X=Y[U]];for(var W=0;W<3;++W)if(isNaN(V[W])||!isFinite(V[W]))continue t}for(U=0;U<2;++U){V=n[X=Y[U]];g.push(V[0],V[1],V[2]),3===(Z=E?E[X]:C?C[F]:L).length?v.push(Z[0],Z[1],Z[2],1):v.push(Z[0],Z[1],Z[2],Z[3]),$=z?z[X]:O?[(O[X]-P)/(R-P),0]:I?I[F]:D?[(D[F]-P)/(R-P),0]:[(V[2]-P)/(R-P),0],m.push($[0],$[1]),y.push(F)}q+=1;break;case 3:for(U=0;U<3;++U)for(V=n[X=Y[U]],W=0;W<3;++W)if(isNaN(V[W])||!isFinite(V[W]))continue t;for(U=0;U<3;++U){var X;V=n[X=Y[2-U]];a.push(V[0],V[1],V[2],V[3]);var Z,$,J,K=i[X];l.push(K[0],K[1],K[2]),3===(Z=E?E[X]:C?C[F]:L).length?c.push(Z[0],Z[1],Z[2],1):c.push(Z[0],Z[1],Z[2],Z[3]),$=z?z[X]:O?[(O[X]-P)/(R-P),0]:I?I[F]:D?[(D[F]-P)/(R-P),0]:[(V[2]-P)/(R-P),0],p.push($[0],$[1]),J=T?T[X]:A[F],h.push(J[0],J[1],J[2]),d.push(F)}H+=1}}this.pointCount=G,this.edgeCount=q,this.triangleCount=H,this.pointPositions.update(x),this.pointColors.update(b),this.pointUVs.update(_),this.pointSizes.update(w),this.pointIds.update(new Uint32Array(k)),this.edgePositions.update(g),this.edgeColors.update(v),this.edgeUVs.update(m),this.edgeIds.update(new Uint32Array(y)),this.trianglePositions.update(a),this.triangleVectors.update(l),this.triangleColors.update(c),this.triangleUVs.update(p),this.triangleNormals.update(h),this.triangleIds.update(new Uint32Array(d))}},x.drawTransparent=x.draw=function(t){t=t||{};for(var e=this.gl,r=t.model||m,n=t.view||m,i=t.projection||m,a=[[-1e6,-1e6,-1e6],[1e6,1e6,1e6]],o=0;o<3;++o)a[0][o]=Math.max(a[0][o],this.clipBounds[0][o]),a[1][o]=Math.min(a[1][o],this.clipBounds[1][o]);var s={model:r,view:n,projection:i,inverseModel:m.slice(),clipBounds:a,kambient:this.ambientLight,kdiffuse:this.diffuseLight,kspecular:this.specularLight,roughness:this.roughness,fresnel:this.fresnel,eyePosition:[0,0,0],lightPosition:[0,0,0],opacity:this.opacity,vectorScale:this.vectorScale,coneScale:this.coneScale,coneOffset:this.coneOffset,contourColor:this.contourColor,texture:0};s.inverseModel=c(s.inverseModel,s.model),e.disable(e.CULL_FACE),this.texture.bind(0);var u=new Array(16);l(u,s.view,s.model),l(u,s.projection,u),c(u,u);for(o=0;o<3;++o)s.eyePosition[o]=u[12+o]/u[15];var f=u[15];for(o=0;o<3;++o)f+=this.lightPosition[o]*u[4*o+3];for(o=0;o<3;++o){for(var h=u[12+o],p=0;p<3;++p)h+=u[4*p+o]*this.lightPosition[p];s.lightPosition[o]=h/f}if(this.triangleCount>0){var d=this.triShader;d.bind(),d.uniforms=s,this.triangleVAO.bind(),e.drawArrays(e.TRIANGLES,0,3*this.triangleCount),this.triangleVAO.unbind()}},x.drawPick=function(t){t=t||{};for(var e=this.gl,r=t.model||m,n=t.view||m,i=t.projection||m,a=[[-1e6,-1e6,-1e6],[1e6,1e6,1e6]],o=0;o<3;++o)a[0][o]=Math.max(a[0][o],this.clipBounds[0][o]),a[1][o]=Math.min(a[1][o],this.clipBounds[1][o]);this._model=[].slice.call(r),this._view=[].slice.call(n),this._projection=[].slice.call(i),this._resolution=[e.drawingBufferWidth,e.drawingBufferHeight];var s={model:r,view:n,projection:i,clipBounds:a,vectorScale:this.vectorScale,coneScale:this.coneScale,coneOffset:this.coneOffset,pickId:this.pickId/255},l=this.pickShader;l.bind(),l.uniforms=s,this.triangleCount>0&&(this.triangleVAO.bind(),e.drawArrays(e.TRIANGLES,0,3*this.triangleCount),this.triangleVAO.unbind()),this.edgeCount>0&&(this.edgeVAO.bind(),e.lineWidth(this.lineWidth*this.pixelRatio),e.drawArrays(e.LINES,0,2*this.edgeCount),this.edgeVAO.unbind())},x.pick=function(t){if(!t)return null;if(t.id!==this.pickId)return null;var e=t.value[0]+256*t.value[1]+65536*t.value[2],r=this.cells[e],n=this.positions[r[1]].slice(0,3);return{index:Math.floor(r[1]/48),position:n,dataCoordinate:n}},x.dispose=function(){this.texture.dispose(),this.triShader.dispose(),this.pickShader.dispose(),this.triangleVAO.dispose(),this.trianglePositions.dispose(),this.triangleVectors.dispose(),this.triangleColors.dispose(),this.triangleUVs.dispose(),this.triangleNormals.dispose(),this.triangleIds.dispose(),this.edgeVAO.dispose(),this.edgePositions.dispose(),this.edgeColors.dispose(),this.edgeUVs.dispose(),this.edgeIds.dispose(),this.pointVAO.dispose(),this.pointPositions.dispose(),this.pointColors.dispose(),this.pointUVs.dispose(),this.pointSizes.dispose(),this.pointIds.dispose(),this.contourVAO.dispose(),this.contourPositions.dispose()},e.exports=function(t,e){1===arguments.length&&(t=(e=t).gl);var r=e.triShader||function(t){var e=n(t,g.vertex,g.fragment,null,g.attributes);return e.attributes.position.location=0,e.attributes.color.location=2,e.attributes.uv.location=3,e.attributes.vector.location=5,e}(t),s=b(t),l=o(t,u(new Uint8Array([255,255,255,255]),[1,1,4]));l.generateMipmap(),l.minFilter=t.LINEAR_MIPMAP_LINEAR,l.magFilter=t.LINEAR;var c=i(t),f=i(t),h=i(t),p=i(t),d=i(t),v=i(t),m=a(t,[{buffer:c,type:t.FLOAT,size:4},{buffer:v,type:t.UNSIGNED_BYTE,size:4,normalized:!0},{buffer:h,type:t.FLOAT,size:4},{buffer:p,type:t.FLOAT,size:2},{buffer:d,type:t.FLOAT,size:3},{buffer:f,type:t.FLOAT,size:3}]),x=i(t),_=i(t),w=i(t),k=i(t),T=a(t,[{buffer:x,type:t.FLOAT,size:3},{buffer:k,type:t.UNSIGNED_BYTE,size:4,normalized:!0},{buffer:_,type:t.FLOAT,size:4},{buffer:w,type:t.FLOAT,size:2}]),A=i(t),M=i(t),S=i(t),E=i(t),C=i(t),L=a(t,[{buffer:A,type:t.FLOAT,size:3},{buffer:C,type:t.UNSIGNED_BYTE,size:4,normalized:!0},{buffer:M,type:t.FLOAT,size:4},{buffer:S,type:t.FLOAT,size:2},{buffer:E,type:t.FLOAT,size:1}]),z=i(t),O=new y(t,l,r,s,c,f,v,h,p,d,m,x,k,_,w,T,A,C,M,S,E,L,z,a(t,[{buffer:z,type:t.FLOAT,size:3}]));return O.update(e),O}},{\\\"./shaders\\\":243,colormap:119,\\\"gl-buffer\\\":240,\\\"gl-mat4/invert\\\":264,\\\"gl-mat4/multiply\\\":266,\\\"gl-shader\\\":300,\\\"gl-texture2d\\\":317,\\\"gl-vao\\\":322,ndarray:445,normals:448,\\\"simplicial-complex-contour\\\":505,\\\"typedarray-pool\\\":532}],243:[function(t,e,r){var n=t(\\\"glslify\\\"),i=n([\\\"precision highp float;\\\\n\\\\nprecision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nvec3 getOrthogonalVector(vec3 v) {\\\\n  // Return up-vector for only-z vector.\\\\n  // Return ax + by + cz = 0, a point that lies on the plane that has v as a normal and that isn't (0,0,0).\\\\n  // From the above if-statement we have ||a|| > 0  U  ||b|| > 0.\\\\n  // Assign z = 0, x = -b, y = a:\\\\n  // a*-b + b*a + c*0 = -ba + ba + 0 = 0\\\\n  if (v.x*v.x > v.z*v.z || v.y*v.y > v.z*v.z) {\\\\n    return normalize(vec3(-v.y, v.x, 0.0));\\\\n  } else {\\\\n    return normalize(vec3(0.0, v.z, -v.y));\\\\n  }\\\\n}\\\\n\\\\n// Calculate the cone vertex and normal at the given index.\\\\n//\\\\n// The returned vertex is for a cone with its top at origin and height of 1.0,\\\\n// pointing in the direction of the vector attribute.\\\\n//\\\\n// Each cone is made up of a top vertex, a center base vertex and base perimeter vertices.\\\\n// These vertices are used to make up the triangles of the cone by the following:\\\\n//   segment + 0 top vertex\\\\n//   segment + 1 perimeter vertex a+1\\\\n//   segment + 2 perimeter vertex a\\\\n//   segment + 3 center base vertex\\\\n//   segment + 4 perimeter vertex a\\\\n//   segment + 5 perimeter vertex a+1\\\\n// Where segment is the number of the radial segment * 6 and a is the angle at that radial segment.\\\\n// To go from index to segment, floor(index / 6)\\\\n// To go from segment to angle, 2*pi * (segment/segmentCount)\\\\n// To go from index to segment index, index - (segment*6)\\\\n//\\\\nvec3 getConePosition(vec3 d, float rawIndex, float coneOffset, out vec3 normal) {\\\\n\\\\n  const float segmentCount = 8.0;\\\\n\\\\n  float index = rawIndex - floor(rawIndex /\\\\n    (segmentCount * 6.0)) *\\\\n    (segmentCount * 6.0);\\\\n\\\\n  float segment = floor(0.001 + index/6.0);\\\\n  float segmentIndex = index - (segment*6.0);\\\\n\\\\n  normal = -normalize(d);\\\\n\\\\n  if (segmentIndex > 2.99 && segmentIndex < 3.01) {\\\\n    return mix(vec3(0.0), -d, coneOffset);\\\\n  }\\\\n\\\\n  float nextAngle = (\\\\n    (segmentIndex > 0.99 &&  segmentIndex < 1.01) ||\\\\n    (segmentIndex > 4.99 &&  segmentIndex < 5.01)\\\\n  ) ? 1.0 : 0.0;\\\\n  float angle = 2.0 * 3.14159 * ((segment + nextAngle) / segmentCount);\\\\n\\\\n  vec3 v1 = mix(d, vec3(0.0), coneOffset);\\\\n  vec3 v2 = v1 - d;\\\\n\\\\n  vec3 u = getOrthogonalVector(d);\\\\n  vec3 v = normalize(cross(u, d));\\\\n\\\\n  vec3 x = u * cos(angle) * length(d)*0.25;\\\\n  vec3 y = v * sin(angle) * length(d)*0.25;\\\\n  vec3 v3 = v2 + x + y;\\\\n  if (segmentIndex < 3.0) {\\\\n    vec3 tx = u * sin(angle);\\\\n    vec3 ty = v * -cos(angle);\\\\n    vec3 tangent = tx + ty;\\\\n    normal = normalize(cross(v3 - v1, tangent));\\\\n  }\\\\n\\\\n  if (segmentIndex == 0.0) {\\\\n    return mix(d, vec3(0.0), coneOffset);\\\\n  }\\\\n  return v3;\\\\n}\\\\n\\\\nattribute vec3 vector;\\\\nattribute vec4 color, position;\\\\nattribute vec2 uv;\\\\nuniform float vectorScale;\\\\nuniform float coneScale;\\\\n\\\\nuniform float coneOffset;\\\\n\\\\nuniform mat4 model\\\\n           , view\\\\n           , projection\\\\n           , inverseModel;\\\\nuniform vec3 eyePosition\\\\n           , lightPosition;\\\\n\\\\nvarying vec3 f_normal\\\\n           , f_lightDirection\\\\n           , f_eyeDirection\\\\n           , f_data\\\\n           , f_position;\\\\nvarying vec4 f_color;\\\\nvarying vec2 f_uv;\\\\n\\\\nvoid main() {\\\\n  // Scale the vector magnitude to stay constant with\\\\n  // model & view changes.\\\\n  vec3 normal;\\\\n  vec3 XYZ = getConePosition(mat3(model) * ((vectorScale * coneScale) * vector), position.w, coneOffset, normal);\\\\n  vec4 conePosition = model * vec4(position.xyz, 1.0) + vec4(XYZ, 0.0);\\\\n\\\\n  //Lighting geometry parameters\\\\n  vec4 cameraCoordinate = view * conePosition;\\\\n  cameraCoordinate.xyz /= cameraCoordinate.w;\\\\n  f_lightDirection = lightPosition - cameraCoordinate.xyz;\\\\n  f_eyeDirection   = eyePosition - cameraCoordinate.xyz;\\\\n  f_normal = normalize((vec4(normal,0.0) * inverseModel).xyz);\\\\n\\\\n  // vec4 m_position  = model * vec4(conePosition, 1.0);\\\\n  vec4 t_position  = view * conePosition;\\\\n  gl_Position      = projection * t_position;\\\\n\\\\n  f_color          = color;\\\\n  f_data           = conePosition.xyz;\\\\n  f_position       = position.xyz;\\\\n  f_uv             = uv;\\\\n}\\\\n\\\"]),a=n([\\\"#extension GL_OES_standard_derivatives : enable\\\\n\\\\nprecision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nfloat beckmannDistribution(float x, float roughness) {\\\\n  float NdotH = max(x, 0.0001);\\\\n  float cos2Alpha = NdotH * NdotH;\\\\n  float tan2Alpha = (cos2Alpha - 1.0) / cos2Alpha;\\\\n  float roughness2 = roughness * roughness;\\\\n  float denom = 3.141592653589793 * roughness2 * cos2Alpha * cos2Alpha;\\\\n  return exp(tan2Alpha / roughness2) / denom;\\\\n}\\\\n\\\\nfloat cookTorranceSpecular(\\\\n  vec3 lightDirection,\\\\n  vec3 viewDirection,\\\\n  vec3 surfaceNormal,\\\\n  float roughness,\\\\n  float fresnel) {\\\\n\\\\n  float VdotN = max(dot(viewDirection, surfaceNormal), 0.0);\\\\n  float LdotN = max(dot(lightDirection, surfaceNormal), 0.0);\\\\n\\\\n  //Half angle vector\\\\n  vec3 H = normalize(lightDirection + viewDirection);\\\\n\\\\n  //Geometric term\\\\n  float NdotH = max(dot(surfaceNormal, H), 0.0);\\\\n  float VdotH = max(dot(viewDirection, H), 0.000001);\\\\n  float LdotH = max(dot(lightDirection, H), 0.000001);\\\\n  float G1 = (2.0 * NdotH * VdotN) / VdotH;\\\\n  float G2 = (2.0 * NdotH * LdotN) / LdotH;\\\\n  float G = min(1.0, min(G1, G2));\\\\n  \\\\n  //Distribution term\\\\n  float D = beckmannDistribution(NdotH, roughness);\\\\n\\\\n  //Fresnel term\\\\n  float F = pow(1.0 - VdotN, fresnel);\\\\n\\\\n  //Multiply terms and done\\\\n  return  G * F * D / max(3.14159265 * VdotN, 0.000001);\\\\n}\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nuniform vec3 clipBounds[2];\\\\nuniform float roughness\\\\n            , fresnel\\\\n            , kambient\\\\n            , kdiffuse\\\\n            , kspecular\\\\n            , opacity;\\\\nuniform sampler2D texture;\\\\n\\\\nvarying vec3 f_normal\\\\n           , f_lightDirection\\\\n           , f_eyeDirection\\\\n           , f_data\\\\n           , f_position;\\\\nvarying vec4 f_color;\\\\nvarying vec2 f_uv;\\\\n\\\\nvoid main() {\\\\n  if (outOfRange(clipBounds[0], clipBounds[1], f_position)) discard;\\\\n  vec3 N = normalize(f_normal);\\\\n  vec3 L = normalize(f_lightDirection);\\\\n  vec3 V = normalize(f_eyeDirection);\\\\n\\\\n  if(gl_FrontFacing) {\\\\n    N = -N;\\\\n  }\\\\n\\\\n  float specular = min(1.0, max(0.0, cookTorranceSpecular(L, V, N, roughness, fresnel)));\\\\n  float diffuse  = min(kambient + kdiffuse * max(dot(N, L), 0.0), 1.0);\\\\n\\\\n  vec4 surfaceColor = f_color * texture2D(texture, f_uv);\\\\n  vec4 litColor = surfaceColor.a * vec4(diffuse * surfaceColor.rgb + kspecular * vec3(1,1,1) * specular,  1.0);\\\\n\\\\n  gl_FragColor = litColor * opacity;\\\\n}\\\\n\\\"]),o=n([\\\"precision highp float;\\\\n\\\\nprecision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nvec3 getOrthogonalVector(vec3 v) {\\\\n  // Return up-vector for only-z vector.\\\\n  // Return ax + by + cz = 0, a point that lies on the plane that has v as a normal and that isn't (0,0,0).\\\\n  // From the above if-statement we have ||a|| > 0  U  ||b|| > 0.\\\\n  // Assign z = 0, x = -b, y = a:\\\\n  // a*-b + b*a + c*0 = -ba + ba + 0 = 0\\\\n  if (v.x*v.x > v.z*v.z || v.y*v.y > v.z*v.z) {\\\\n    return normalize(vec3(-v.y, v.x, 0.0));\\\\n  } else {\\\\n    return normalize(vec3(0.0, v.z, -v.y));\\\\n  }\\\\n}\\\\n\\\\n// Calculate the cone vertex and normal at the given index.\\\\n//\\\\n// The returned vertex is for a cone with its top at origin and height of 1.0,\\\\n// pointing in the direction of the vector attribute.\\\\n//\\\\n// Each cone is made up of a top vertex, a center base vertex and base perimeter vertices.\\\\n// These vertices are used to make up the triangles of the cone by the following:\\\\n//   segment + 0 top vertex\\\\n//   segment + 1 perimeter vertex a+1\\\\n//   segment + 2 perimeter vertex a\\\\n//   segment + 3 center base vertex\\\\n//   segment + 4 perimeter vertex a\\\\n//   segment + 5 perimeter vertex a+1\\\\n// Where segment is the number of the radial segment * 6 and a is the angle at that radial segment.\\\\n// To go from index to segment, floor(index / 6)\\\\n// To go from segment to angle, 2*pi * (segment/segmentCount)\\\\n// To go from index to segment index, index - (segment*6)\\\\n//\\\\nvec3 getConePosition(vec3 d, float rawIndex, float coneOffset, out vec3 normal) {\\\\n\\\\n  const float segmentCount = 8.0;\\\\n\\\\n  float index = rawIndex - floor(rawIndex /\\\\n    (segmentCount * 6.0)) *\\\\n    (segmentCount * 6.0);\\\\n\\\\n  float segment = floor(0.001 + index/6.0);\\\\n  float segmentIndex = index - (segment*6.0);\\\\n\\\\n  normal = -normalize(d);\\\\n\\\\n  if (segmentIndex > 2.99 && segmentIndex < 3.01) {\\\\n    return mix(vec3(0.0), -d, coneOffset);\\\\n  }\\\\n\\\\n  float nextAngle = (\\\\n    (segmentIndex > 0.99 &&  segmentIndex < 1.01) ||\\\\n    (segmentIndex > 4.99 &&  segmentIndex < 5.01)\\\\n  ) ? 1.0 : 0.0;\\\\n  float angle = 2.0 * 3.14159 * ((segment + nextAngle) / segmentCount);\\\\n\\\\n  vec3 v1 = mix(d, vec3(0.0), coneOffset);\\\\n  vec3 v2 = v1 - d;\\\\n\\\\n  vec3 u = getOrthogonalVector(d);\\\\n  vec3 v = normalize(cross(u, d));\\\\n\\\\n  vec3 x = u * cos(angle) * length(d)*0.25;\\\\n  vec3 y = v * sin(angle) * length(d)*0.25;\\\\n  vec3 v3 = v2 + x + y;\\\\n  if (segmentIndex < 3.0) {\\\\n    vec3 tx = u * sin(angle);\\\\n    vec3 ty = v * -cos(angle);\\\\n    vec3 tangent = tx + ty;\\\\n    normal = normalize(cross(v3 - v1, tangent));\\\\n  }\\\\n\\\\n  if (segmentIndex == 0.0) {\\\\n    return mix(d, vec3(0.0), coneOffset);\\\\n  }\\\\n  return v3;\\\\n}\\\\n\\\\nattribute vec3 vector;\\\\nattribute vec4 position;\\\\nattribute vec4 id;\\\\n\\\\nuniform mat4 model, view, projection;\\\\n\\\\nuniform float vectorScale;\\\\nuniform float coneScale;\\\\nuniform float coneOffset;\\\\n\\\\nvarying vec3 f_position;\\\\nvarying vec4 f_id;\\\\n\\\\nvoid main() {\\\\n  vec3 normal;\\\\n  vec3 XYZ = getConePosition(mat3(model) * ((vectorScale * coneScale) * vector), position.w, coneOffset, normal);\\\\n  vec4 conePosition = model * vec4(position.xyz, 1.0) + vec4(XYZ, 0.0);\\\\n  gl_Position = projection * view * conePosition;\\\\n  f_id        = id;\\\\n  f_position  = position.xyz;\\\\n}\\\\n\\\"]),s=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nuniform vec3  clipBounds[2];\\\\nuniform float pickId;\\\\n\\\\nvarying vec3 f_position;\\\\nvarying vec4 f_id;\\\\n\\\\nvoid main() {\\\\n  if (outOfRange(clipBounds[0], clipBounds[1], f_position)) discard;\\\\n\\\\n  gl_FragColor = vec4(pickId, f_id.xyz);\\\\n}\\\"]);r.meshShader={vertex:i,fragment:a,attributes:[{name:\\\"position\\\",type:\\\"vec4\\\"},{name:\\\"normal\\\",type:\\\"vec3\\\"},{name:\\\"color\\\",type:\\\"vec4\\\"},{name:\\\"uv\\\",type:\\\"vec2\\\"},{name:\\\"vector\\\",type:\\\"vec3\\\"}]},r.pickShader={vertex:o,fragment:s,attributes:[{name:\\\"position\\\",type:\\\"vec4\\\"},{name:\\\"id\\\",type:\\\"vec4\\\"},{name:\\\"vector\\\",type:\\\"vec3\\\"}]}},{glslify:404}],244:[function(t,e,r){e.exports={0:\\\"NONE\\\",1:\\\"ONE\\\",2:\\\"LINE_LOOP\\\",3:\\\"LINE_STRIP\\\",4:\\\"TRIANGLES\\\",5:\\\"TRIANGLE_STRIP\\\",6:\\\"TRIANGLE_FAN\\\",256:\\\"DEPTH_BUFFER_BIT\\\",512:\\\"NEVER\\\",513:\\\"LESS\\\",514:\\\"EQUAL\\\",515:\\\"LEQUAL\\\",516:\\\"GREATER\\\",517:\\\"NOTEQUAL\\\",518:\\\"GEQUAL\\\",519:\\\"ALWAYS\\\",768:\\\"SRC_COLOR\\\",769:\\\"ONE_MINUS_SRC_COLOR\\\",770:\\\"SRC_ALPHA\\\",771:\\\"ONE_MINUS_SRC_ALPHA\\\",772:\\\"DST_ALPHA\\\",773:\\\"ONE_MINUS_DST_ALPHA\\\",774:\\\"DST_COLOR\\\",775:\\\"ONE_MINUS_DST_COLOR\\\",776:\\\"SRC_ALPHA_SATURATE\\\",1024:\\\"STENCIL_BUFFER_BIT\\\",1028:\\\"FRONT\\\",1029:\\\"BACK\\\",1032:\\\"FRONT_AND_BACK\\\",1280:\\\"INVALID_ENUM\\\",1281:\\\"INVALID_VALUE\\\",1282:\\\"INVALID_OPERATION\\\",1285:\\\"OUT_OF_MEMORY\\\",1286:\\\"INVALID_FRAMEBUFFER_OPERATION\\\",2304:\\\"CW\\\",2305:\\\"CCW\\\",2849:\\\"LINE_WIDTH\\\",2884:\\\"CULL_FACE\\\",2885:\\\"CULL_FACE_MODE\\\",2886:\\\"FRONT_FACE\\\",2928:\\\"DEPTH_RANGE\\\",2929:\\\"DEPTH_TEST\\\",2930:\\\"DEPTH_WRITEMASK\\\",2931:\\\"DEPTH_CLEAR_VALUE\\\",2932:\\\"DEPTH_FUNC\\\",2960:\\\"STENCIL_TEST\\\",2961:\\\"STENCIL_CLEAR_VALUE\\\",2962:\\\"STENCIL_FUNC\\\",2963:\\\"STENCIL_VALUE_MASK\\\",2964:\\\"STENCIL_FAIL\\\",2965:\\\"STENCIL_PASS_DEPTH_FAIL\\\",2966:\\\"STENCIL_PASS_DEPTH_PASS\\\",2967:\\\"STENCIL_REF\\\",2968:\\\"STENCIL_WRITEMASK\\\",2978:\\\"VIEWPORT\\\",3024:\\\"DITHER\\\",3042:\\\"BLEND\\\",3088:\\\"SCISSOR_BOX\\\",3089:\\\"SCISSOR_TEST\\\",3106:\\\"COLOR_CLEAR_VALUE\\\",3107:\\\"COLOR_WRITEMASK\\\",3317:\\\"UNPACK_ALIGNMENT\\\",3333:\\\"PACK_ALIGNMENT\\\",3379:\\\"MAX_TEXTURE_SIZE\\\",3386:\\\"MAX_VIEWPORT_DIMS\\\",3408:\\\"SUBPIXEL_BITS\\\",3410:\\\"RED_BITS\\\",3411:\\\"GREEN_BITS\\\",3412:\\\"BLUE_BITS\\\",3413:\\\"ALPHA_BITS\\\",3414:\\\"DEPTH_BITS\\\",3415:\\\"STENCIL_BITS\\\",3553:\\\"TEXTURE_2D\\\",4352:\\\"DONT_CARE\\\",4353:\\\"FASTEST\\\",4354:\\\"NICEST\\\",5120:\\\"BYTE\\\",5121:\\\"UNSIGNED_BYTE\\\",5122:\\\"SHORT\\\",5123:\\\"UNSIGNED_SHORT\\\",5124:\\\"INT\\\",5125:\\\"UNSIGNED_INT\\\",5126:\\\"FLOAT\\\",5386:\\\"INVERT\\\",5890:\\\"TEXTURE\\\",6401:\\\"STENCIL_INDEX\\\",6402:\\\"DEPTH_COMPONENT\\\",6406:\\\"ALPHA\\\",6407:\\\"RGB\\\",6408:\\\"RGBA\\\",6409:\\\"LUMINANCE\\\",6410:\\\"LUMINANCE_ALPHA\\\",7680:\\\"KEEP\\\",7681:\\\"REPLACE\\\",7682:\\\"INCR\\\",7683:\\\"DECR\\\",7936:\\\"VENDOR\\\",7937:\\\"RENDERER\\\",7938:\\\"VERSION\\\",9728:\\\"NEAREST\\\",9729:\\\"LINEAR\\\",9984:\\\"NEAREST_MIPMAP_NEAREST\\\",9985:\\\"LINEAR_MIPMAP_NEAREST\\\",9986:\\\"NEAREST_MIPMAP_LINEAR\\\",9987:\\\"LINEAR_MIPMAP_LINEAR\\\",10240:\\\"TEXTURE_MAG_FILTER\\\",10241:\\\"TEXTURE_MIN_FILTER\\\",10242:\\\"TEXTURE_WRAP_S\\\",10243:\\\"TEXTURE_WRAP_T\\\",10497:\\\"REPEAT\\\",10752:\\\"POLYGON_OFFSET_UNITS\\\",16384:\\\"COLOR_BUFFER_BIT\\\",32769:\\\"CONSTANT_COLOR\\\",32770:\\\"ONE_MINUS_CONSTANT_COLOR\\\",32771:\\\"CONSTANT_ALPHA\\\",32772:\\\"ONE_MINUS_CONSTANT_ALPHA\\\",32773:\\\"BLEND_COLOR\\\",32774:\\\"FUNC_ADD\\\",32777:\\\"BLEND_EQUATION_RGB\\\",32778:\\\"FUNC_SUBTRACT\\\",32779:\\\"FUNC_REVERSE_SUBTRACT\\\",32819:\\\"UNSIGNED_SHORT_4_4_4_4\\\",32820:\\\"UNSIGNED_SHORT_5_5_5_1\\\",32823:\\\"POLYGON_OFFSET_FILL\\\",32824:\\\"POLYGON_OFFSET_FACTOR\\\",32854:\\\"RGBA4\\\",32855:\\\"RGB5_A1\\\",32873:\\\"TEXTURE_BINDING_2D\\\",32926:\\\"SAMPLE_ALPHA_TO_COVERAGE\\\",32928:\\\"SAMPLE_COVERAGE\\\",32936:\\\"SAMPLE_BUFFERS\\\",32937:\\\"SAMPLES\\\",32938:\\\"SAMPLE_COVERAGE_VALUE\\\",32939:\\\"SAMPLE_COVERAGE_INVERT\\\",32968:\\\"BLEND_DST_RGB\\\",32969:\\\"BLEND_SRC_RGB\\\",32970:\\\"BLEND_DST_ALPHA\\\",32971:\\\"BLEND_SRC_ALPHA\\\",33071:\\\"CLAMP_TO_EDGE\\\",33170:\\\"GENERATE_MIPMAP_HINT\\\",33189:\\\"DEPTH_COMPONENT16\\\",33306:\\\"DEPTH_STENCIL_ATTACHMENT\\\",33635:\\\"UNSIGNED_SHORT_5_6_5\\\",33648:\\\"MIRRORED_REPEAT\\\",33901:\\\"ALIASED_POINT_SIZE_RANGE\\\",33902:\\\"ALIASED_LINE_WIDTH_RANGE\\\",33984:\\\"TEXTURE0\\\",33985:\\\"TEXTURE1\\\",33986:\\\"TEXTURE2\\\",33987:\\\"TEXTURE3\\\",33988:\\\"TEXTURE4\\\",33989:\\\"TEXTURE5\\\",33990:\\\"TEXTURE6\\\",33991:\\\"TEXTURE7\\\",33992:\\\"TEXTURE8\\\",33993:\\\"TEXTURE9\\\",33994:\\\"TEXTURE10\\\",33995:\\\"TEXTURE11\\\",33996:\\\"TEXTURE12\\\",33997:\\\"TEXTURE13\\\",33998:\\\"TEXTURE14\\\",33999:\\\"TEXTURE15\\\",34000:\\\"TEXTURE16\\\",34001:\\\"TEXTURE17\\\",34002:\\\"TEXTURE18\\\",34003:\\\"TEXTURE19\\\",34004:\\\"TEXTURE20\\\",34005:\\\"TEXTURE21\\\",34006:\\\"TEXTURE22\\\",34007:\\\"TEXTURE23\\\",34008:\\\"TEXTURE24\\\",34009:\\\"TEXTURE25\\\",34010:\\\"TEXTURE26\\\",34011:\\\"TEXTURE27\\\",34012:\\\"TEXTURE28\\\",34013:\\\"TEXTURE29\\\",34014:\\\"TEXTURE30\\\",34015:\\\"TEXTURE31\\\",34016:\\\"ACTIVE_TEXTURE\\\",34024:\\\"MAX_RENDERBUFFER_SIZE\\\",34041:\\\"DEPTH_STENCIL\\\",34055:\\\"INCR_WRAP\\\",34056:\\\"DECR_WRAP\\\",34067:\\\"TEXTURE_CUBE_MAP\\\",34068:\\\"TEXTURE_BINDING_CUBE_MAP\\\",34069:\\\"TEXTURE_CUBE_MAP_POSITIVE_X\\\",34070:\\\"TEXTURE_CUBE_MAP_NEGATIVE_X\\\",34071:\\\"TEXTURE_CUBE_MAP_POSITIVE_Y\\\",34072:\\\"TEXTURE_CUBE_MAP_NEGATIVE_Y\\\",34073:\\\"TEXTURE_CUBE_MAP_POSITIVE_Z\\\",34074:\\\"TEXTURE_CUBE_MAP_NEGATIVE_Z\\\",34076:\\\"MAX_CUBE_MAP_TEXTURE_SIZE\\\",34338:\\\"VERTEX_ATTRIB_ARRAY_ENABLED\\\",34339:\\\"VERTEX_ATTRIB_ARRAY_SIZE\\\",34340:\\\"VERTEX_ATTRIB_ARRAY_STRIDE\\\",34341:\\\"VERTEX_ATTRIB_ARRAY_TYPE\\\",34342:\\\"CURRENT_VERTEX_ATTRIB\\\",34373:\\\"VERTEX_ATTRIB_ARRAY_POINTER\\\",34466:\\\"NUM_COMPRESSED_TEXTURE_FORMATS\\\",34467:\\\"COMPRESSED_TEXTURE_FORMATS\\\",34660:\\\"BUFFER_SIZE\\\",34661:\\\"BUFFER_USAGE\\\",34816:\\\"STENCIL_BACK_FUNC\\\",34817:\\\"STENCIL_BACK_FAIL\\\",34818:\\\"STENCIL_BACK_PASS_DEPTH_FAIL\\\",34819:\\\"STENCIL_BACK_PASS_DEPTH_PASS\\\",34877:\\\"BLEND_EQUATION_ALPHA\\\",34921:\\\"MAX_VERTEX_ATTRIBS\\\",34922:\\\"VERTEX_ATTRIB_ARRAY_NORMALIZED\\\",34930:\\\"MAX_TEXTURE_IMAGE_UNITS\\\",34962:\\\"ARRAY_BUFFER\\\",34963:\\\"ELEMENT_ARRAY_BUFFER\\\",34964:\\\"ARRAY_BUFFER_BINDING\\\",34965:\\\"ELEMENT_ARRAY_BUFFER_BINDING\\\",34975:\\\"VERTEX_ATTRIB_ARRAY_BUFFER_BINDING\\\",35040:\\\"STREAM_DRAW\\\",35044:\\\"STATIC_DRAW\\\",35048:\\\"DYNAMIC_DRAW\\\",35632:\\\"FRAGMENT_SHADER\\\",35633:\\\"VERTEX_SHADER\\\",35660:\\\"MAX_VERTEX_TEXTURE_IMAGE_UNITS\\\",35661:\\\"MAX_COMBINED_TEXTURE_IMAGE_UNITS\\\",35663:\\\"SHADER_TYPE\\\",35664:\\\"FLOAT_VEC2\\\",35665:\\\"FLOAT_VEC3\\\",35666:\\\"FLOAT_VEC4\\\",35667:\\\"INT_VEC2\\\",35668:\\\"INT_VEC3\\\",35669:\\\"INT_VEC4\\\",35670:\\\"BOOL\\\",35671:\\\"BOOL_VEC2\\\",35672:\\\"BOOL_VEC3\\\",35673:\\\"BOOL_VEC4\\\",35674:\\\"FLOAT_MAT2\\\",35675:\\\"FLOAT_MAT3\\\",35676:\\\"FLOAT_MAT4\\\",35678:\\\"SAMPLER_2D\\\",35680:\\\"SAMPLER_CUBE\\\",35712:\\\"DELETE_STATUS\\\",35713:\\\"COMPILE_STATUS\\\",35714:\\\"LINK_STATUS\\\",35715:\\\"VALIDATE_STATUS\\\",35716:\\\"INFO_LOG_LENGTH\\\",35717:\\\"ATTACHED_SHADERS\\\",35718:\\\"ACTIVE_UNIFORMS\\\",35719:\\\"ACTIVE_UNIFORM_MAX_LENGTH\\\",35720:\\\"SHADER_SOURCE_LENGTH\\\",35721:\\\"ACTIVE_ATTRIBUTES\\\",35722:\\\"ACTIVE_ATTRIBUTE_MAX_LENGTH\\\",35724:\\\"SHADING_LANGUAGE_VERSION\\\",35725:\\\"CURRENT_PROGRAM\\\",36003:\\\"STENCIL_BACK_REF\\\",36004:\\\"STENCIL_BACK_VALUE_MASK\\\",36005:\\\"STENCIL_BACK_WRITEMASK\\\",36006:\\\"FRAMEBUFFER_BINDING\\\",36007:\\\"RENDERBUFFER_BINDING\\\",36048:\\\"FRAMEBUFFER_ATTACHMENT_OBJECT_TYPE\\\",36049:\\\"FRAMEBUFFER_ATTACHMENT_OBJECT_NAME\\\",36050:\\\"FRAMEBUFFER_ATTACHMENT_TEXTURE_LEVEL\\\",36051:\\\"FRAMEBUFFER_ATTACHMENT_TEXTURE_CUBE_MAP_FACE\\\",36053:\\\"FRAMEBUFFER_COMPLETE\\\",36054:\\\"FRAMEBUFFER_INCOMPLETE_ATTACHMENT\\\",36055:\\\"FRAMEBUFFER_INCOMPLETE_MISSING_ATTACHMENT\\\",36057:\\\"FRAMEBUFFER_INCOMPLETE_DIMENSIONS\\\",36061:\\\"FRAMEBUFFER_UNSUPPORTED\\\",36064:\\\"COLOR_ATTACHMENT0\\\",36096:\\\"DEPTH_ATTACHMENT\\\",36128:\\\"STENCIL_ATTACHMENT\\\",36160:\\\"FRAMEBUFFER\\\",36161:\\\"RENDERBUFFER\\\",36162:\\\"RENDERBUFFER_WIDTH\\\",36163:\\\"RENDERBUFFER_HEIGHT\\\",36164:\\\"RENDERBUFFER_INTERNAL_FORMAT\\\",36168:\\\"STENCIL_INDEX8\\\",36176:\\\"RENDERBUFFER_RED_SIZE\\\",36177:\\\"RENDERBUFFER_GREEN_SIZE\\\",36178:\\\"RENDERBUFFER_BLUE_SIZE\\\",36179:\\\"RENDERBUFFER_ALPHA_SIZE\\\",36180:\\\"RENDERBUFFER_DEPTH_SIZE\\\",36181:\\\"RENDERBUFFER_STENCIL_SIZE\\\",36194:\\\"RGB565\\\",36336:\\\"LOW_FLOAT\\\",36337:\\\"MEDIUM_FLOAT\\\",36338:\\\"HIGH_FLOAT\\\",36339:\\\"LOW_INT\\\",36340:\\\"MEDIUM_INT\\\",36341:\\\"HIGH_INT\\\",36346:\\\"SHADER_COMPILER\\\",36347:\\\"MAX_VERTEX_UNIFORM_VECTORS\\\",36348:\\\"MAX_VARYING_VECTORS\\\",36349:\\\"MAX_FRAGMENT_UNIFORM_VECTORS\\\",37440:\\\"UNPACK_FLIP_Y_WEBGL\\\",37441:\\\"UNPACK_PREMULTIPLY_ALPHA_WEBGL\\\",37442:\\\"CONTEXT_LOST_WEBGL\\\",37443:\\\"UNPACK_COLORSPACE_CONVERSION_WEBGL\\\",37444:\\\"BROWSER_DEFAULT_WEBGL\\\"}},{}],245:[function(t,e,r){var n=t(\\\"./1.0/numbers\\\");e.exports=function(t){return n[t]}},{\\\"./1.0/numbers\\\":244}],246:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=t.gl,r=n(e),o=i(e,[{buffer:r,type:e.FLOAT,size:3,offset:0,stride:40},{buffer:r,type:e.FLOAT,size:4,offset:12,stride:40},{buffer:r,type:e.FLOAT,size:3,offset:28,stride:40}]),l=a(e);l.attributes.position.location=0,l.attributes.color.location=1,l.attributes.offset.location=2;var c=new s(e,r,o,l);return c.update(t),c};var n=t(\\\"gl-buffer\\\"),i=t(\\\"gl-vao\\\"),a=t(\\\"./shaders/index\\\"),o=[1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1];function s(t,e,r,n){this.gl=t,this.shader=n,this.buffer=e,this.vao=r,this.pixelRatio=1,this.bounds=[[1/0,1/0,1/0],[-1/0,-1/0,-1/0]],this.clipBounds=[[-1/0,-1/0,-1/0],[1/0,1/0,1/0]],this.lineWidth=[1,1,1],this.capSize=[10,10,10],this.lineCount=[0,0,0],this.lineOffset=[0,0,0],this.opacity=1,this.hasAlpha=!1}var l=s.prototype;function c(t,e){for(var r=0;r<3;++r)t[0][r]=Math.min(t[0][r],e[r]),t[1][r]=Math.max(t[1][r],e[r])}l.isOpaque=function(){return!this.hasAlpha},l.isTransparent=function(){return this.hasAlpha},l.drawTransparent=l.draw=function(t){var e=this.gl,r=this.shader.uniforms;this.shader.bind();var n=r.view=t.view||o,i=r.projection=t.projection||o;r.model=t.model||o,r.clipBounds=this.clipBounds,r.opacity=this.opacity;var a=n[12],s=n[13],l=n[14],c=n[15],u=(t._ortho||!1?2:1)*this.pixelRatio*(i[3]*a+i[7]*s+i[11]*l+i[15]*c)/e.drawingBufferHeight;this.vao.bind();for(var f=0;f<3;++f)e.lineWidth(this.lineWidth[f]*this.pixelRatio),r.capSize=this.capSize[f]*u,this.lineCount[f]&&e.drawArrays(e.LINES,this.lineOffset[f],this.lineCount[f]);this.vao.unbind()};var u=function(){for(var t=new Array(3),e=0;e<3;++e){for(var r=[],n=1;n<=2;++n)for(var i=-1;i<=1;i+=2){var a=[0,0,0];a[(n+e)%3]=i,r.push(a)}t[e]=r}return t}();function f(t,e,r,n){for(var i=u[n],a=0;a<i.length;++a){var o=i[a];t.push(e[0],e[1],e[2],r[0],r[1],r[2],r[3],o[0],o[1],o[2])}return i.length}l.update=function(t){\\\"lineWidth\\\"in(t=t||{})&&(this.lineWidth=t.lineWidth,Array.isArray(this.lineWidth)||(this.lineWidth=[this.lineWidth,this.lineWidth,this.lineWidth])),\\\"capSize\\\"in t&&(this.capSize=t.capSize,Array.isArray(this.capSize)||(this.capSize=[this.capSize,this.capSize,this.capSize])),this.hasAlpha=!1,\\\"opacity\\\"in t&&(this.opacity=+t.opacity,this.opacity<1&&(this.hasAlpha=!0));var e=t.color||[[0,0,0],[0,0,0],[0,0,0]],r=t.position,n=t.error;if(Array.isArray(e[0])||(e=[e,e,e]),r&&n){var i=[],a=r.length,o=0;this.bounds=[[1/0,1/0,1/0],[-1/0,-1/0,-1/0]],this.lineCount=[0,0,0];for(var s=0;s<3;++s){this.lineOffset[s]=o;t:for(var l=0;l<a;++l){for(var u=r[l],h=0;h<3;++h)if(isNaN(u[h])||!isFinite(u[h]))continue t;var p=n[l],d=e[s];if(Array.isArray(d[0])&&(d=e[l]),3===d.length?d=[d[0],d[1],d[2],1]:4===d.length&&(d=[d[0],d[1],d[2],d[3]],!this.hasAlpha&&d[3]<1&&(this.hasAlpha=!0)),!isNaN(p[0][s])&&!isNaN(p[1][s])){var g;if(p[0][s]<0)(g=u.slice())[s]+=p[0][s],i.push(u[0],u[1],u[2],d[0],d[1],d[2],d[3],0,0,0,g[0],g[1],g[2],d[0],d[1],d[2],d[3],0,0,0),c(this.bounds,g),o+=2+f(i,g,d,s);if(p[1][s]>0)(g=u.slice())[s]+=p[1][s],i.push(u[0],u[1],u[2],d[0],d[1],d[2],d[3],0,0,0,g[0],g[1],g[2],d[0],d[1],d[2],d[3],0,0,0),c(this.bounds,g),o+=2+f(i,g,d,s)}}this.lineCount[s]=o-this.lineOffset[s]}this.buffer.update(i)}},l.dispose=function(){this.shader.dispose(),this.buffer.dispose(),this.vao.dispose()}},{\\\"./shaders/index\\\":247,\\\"gl-buffer\\\":240,\\\"gl-vao\\\":322}],247:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"glslify\\\"),i=t(\\\"gl-shader\\\"),a=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec3 position, offset;\\\\nattribute vec4 color;\\\\nuniform mat4 model, view, projection;\\\\nuniform float capSize;\\\\nvarying vec4 fragColor;\\\\nvarying vec3 fragPosition;\\\\n\\\\nvoid main() {\\\\n  vec4 worldPosition  = model * vec4(position, 1.0);\\\\n  worldPosition       = (worldPosition / worldPosition.w) + vec4(capSize * offset, 0.0);\\\\n  gl_Position         = projection * view * worldPosition;\\\\n  fragColor           = color;\\\\n  fragPosition        = position;\\\\n}\\\"]),o=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nuniform vec3 clipBounds[2];\\\\nuniform float opacity;\\\\nvarying vec3 fragPosition;\\\\nvarying vec4 fragColor;\\\\n\\\\nvoid main() {\\\\n  if (\\\\n    outOfRange(clipBounds[0], clipBounds[1], fragPosition) ||\\\\n    fragColor.a * opacity == 0.\\\\n  ) discard;\\\\n\\\\n  gl_FragColor = opacity * fragColor;\\\\n}\\\"]);e.exports=function(t){return i(t,a,o,null,[{name:\\\"position\\\",type:\\\"vec3\\\"},{name:\\\"color\\\",type:\\\"vec4\\\"},{name:\\\"offset\\\",type:\\\"vec3\\\"}])}},{\\\"gl-shader\\\":300,glslify:404}],248:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-texture2d\\\");e.exports=function(t,e,r,n){i||(i=t.FRAMEBUFFER_UNSUPPORTED,a=t.FRAMEBUFFER_INCOMPLETE_ATTACHMENT,o=t.FRAMEBUFFER_INCOMPLETE_DIMENSIONS,s=t.FRAMEBUFFER_INCOMPLETE_MISSING_ATTACHMENT);var c=t.getExtension(\\\"WEBGL_draw_buffers\\\");!l&&c&&function(t,e){var r=t.getParameter(e.MAX_COLOR_ATTACHMENTS_WEBGL);l=new Array(r+1);for(var n=0;n<=r;++n){for(var i=new Array(r),a=0;a<n;++a)i[a]=t.COLOR_ATTACHMENT0+a;for(var a=n;a<r;++a)i[a]=t.NONE;l[n]=i}}(t,c);Array.isArray(e)&&(n=r,r=0|e[1],e=0|e[0]);if(\\\"number\\\"!=typeof e)throw new Error(\\\"gl-fbo: Missing shape parameter\\\");var u=t.getParameter(t.MAX_RENDERBUFFER_SIZE);if(e<0||e>u||r<0||r>u)throw new Error(\\\"gl-fbo: Parameters are too large for FBO\\\");var f=1;if(\\\"color\\\"in(n=n||{})){if((f=Math.max(0|n.color,0))<0)throw new Error(\\\"gl-fbo: Must specify a nonnegative number of colors\\\");if(f>1){if(!c)throw new Error(\\\"gl-fbo: Multiple draw buffer extension not supported\\\");if(f>t.getParameter(c.MAX_COLOR_ATTACHMENTS_WEBGL))throw new Error(\\\"gl-fbo: Context does not support \\\"+f+\\\" draw buffers\\\")}}var h=t.UNSIGNED_BYTE,p=t.getExtension(\\\"OES_texture_float\\\");if(n.float&&f>0){if(!p)throw new Error(\\\"gl-fbo: Context does not support floating point textures\\\");h=t.FLOAT}else n.preferFloat&&f>0&&p&&(h=t.FLOAT);var g=!0;\\\"depth\\\"in n&&(g=!!n.depth);var v=!1;\\\"stencil\\\"in n&&(v=!!n.stencil);return new d(t,e,r,h,f,g,v,c)};var i,a,o,s,l=null;function c(t){return[t.getParameter(t.FRAMEBUFFER_BINDING),t.getParameter(t.RENDERBUFFER_BINDING),t.getParameter(t.TEXTURE_BINDING_2D)]}function u(t,e){t.bindFramebuffer(t.FRAMEBUFFER,e[0]),t.bindRenderbuffer(t.RENDERBUFFER,e[1]),t.bindTexture(t.TEXTURE_2D,e[2])}function f(t){switch(t){case i:throw new Error(\\\"gl-fbo: Framebuffer unsupported\\\");case a:throw new Error(\\\"gl-fbo: Framebuffer incomplete attachment\\\");case o:throw new Error(\\\"gl-fbo: Framebuffer incomplete dimensions\\\");case s:throw new Error(\\\"gl-fbo: Framebuffer incomplete missing attachment\\\");default:throw new Error(\\\"gl-fbo: Framebuffer failed for unspecified reason\\\")}}function h(t,e,r,i,a,o){if(!i)return null;var s=n(t,e,r,a,i);return s.magFilter=t.NEAREST,s.minFilter=t.NEAREST,s.mipSamples=1,s.bind(),t.framebufferTexture2D(t.FRAMEBUFFER,o,t.TEXTURE_2D,s.handle,0),s}function p(t,e,r,n,i){var a=t.createRenderbuffer();return t.bindRenderbuffer(t.RENDERBUFFER,a),t.renderbufferStorage(t.RENDERBUFFER,n,e,r),t.framebufferRenderbuffer(t.FRAMEBUFFER,i,t.RENDERBUFFER,a),a}function d(t,e,r,n,i,a,o,s){this.gl=t,this._shape=[0|e,0|r],this._destroyed=!1,this._ext=s,this.color=new Array(i);for(var d=0;d<i;++d)this.color[d]=null;this._color_rb=null,this.depth=null,this._depth_rb=null,this._colorType=n,this._useDepth=a,this._useStencil=o;var g=this,v=[0|e,0|r];Object.defineProperties(v,{0:{get:function(){return g._shape[0]},set:function(t){return g.width=t}},1:{get:function(){return g._shape[1]},set:function(t){return g.height=t}}}),this._shapeVector=v,function(t){var e=c(t.gl),r=t.gl,n=t.handle=r.createFramebuffer(),i=t._shape[0],a=t._shape[1],o=t.color.length,s=t._ext,d=t._useStencil,g=t._useDepth,v=t._colorType;r.bindFramebuffer(r.FRAMEBUFFER,n);for(var m=0;m<o;++m)t.color[m]=h(r,i,a,v,r.RGBA,r.COLOR_ATTACHMENT0+m);0===o?(t._color_rb=p(r,i,a,r.RGBA4,r.COLOR_ATTACHMENT0),s&&s.drawBuffersWEBGL(l[0])):o>1&&s.drawBuffersWEBGL(l[o]);var y=r.getExtension(\\\"WEBGL_depth_texture\\\");y?d?t.depth=h(r,i,a,y.UNSIGNED_INT_24_8_WEBGL,r.DEPTH_STENCIL,r.DEPTH_STENCIL_ATTACHMENT):g&&(t.depth=h(r,i,a,r.UNSIGNED_SHORT,r.DEPTH_COMPONENT,r.DEPTH_ATTACHMENT)):g&&d?t._depth_rb=p(r,i,a,r.DEPTH_STENCIL,r.DEPTH_STENCIL_ATTACHMENT):g?t._depth_rb=p(r,i,a,r.DEPTH_COMPONENT16,r.DEPTH_ATTACHMENT):d&&(t._depth_rb=p(r,i,a,r.STENCIL_INDEX,r.STENCIL_ATTACHMENT));var x=r.checkFramebufferStatus(r.FRAMEBUFFER);if(x!==r.FRAMEBUFFER_COMPLETE){for(t._destroyed=!0,r.bindFramebuffer(r.FRAMEBUFFER,null),r.deleteFramebuffer(t.handle),t.handle=null,t.depth&&(t.depth.dispose(),t.depth=null),t._depth_rb&&(r.deleteRenderbuffer(t._depth_rb),t._depth_rb=null),m=0;m<t.color.length;++m)t.color[m].dispose(),t.color[m]=null;t._color_rb&&(r.deleteRenderbuffer(t._color_rb),t._color_rb=null),u(r,e),f(x)}u(r,e)}(this)}var g=d.prototype;function v(t,e,r){if(t._destroyed)throw new Error(\\\"gl-fbo: Can't resize destroyed FBO\\\");if(t._shape[0]!==e||t._shape[1]!==r){var n=t.gl,i=n.getParameter(n.MAX_RENDERBUFFER_SIZE);if(e<0||e>i||r<0||r>i)throw new Error(\\\"gl-fbo: Can't resize FBO, invalid dimensions\\\");t._shape[0]=e,t._shape[1]=r;for(var a=c(n),o=0;o<t.color.length;++o)t.color[o].shape=t._shape;t._color_rb&&(n.bindRenderbuffer(n.RENDERBUFFER,t._color_rb),n.renderbufferStorage(n.RENDERBUFFER,n.RGBA4,t._shape[0],t._shape[1])),t.depth&&(t.depth.shape=t._shape),t._depth_rb&&(n.bindRenderbuffer(n.RENDERBUFFER,t._depth_rb),t._useDepth&&t._useStencil?n.renderbufferStorage(n.RENDERBUFFER,n.DEPTH_STENCIL,t._shape[0],t._shape[1]):t._useDepth?n.renderbufferStorage(n.RENDERBUFFER,n.DEPTH_COMPONENT16,t._shape[0],t._shape[1]):t._useStencil&&n.renderbufferStorage(n.RENDERBUFFER,n.STENCIL_INDEX,t._shape[0],t._shape[1])),n.bindFramebuffer(n.FRAMEBUFFER,t.handle);var s=n.checkFramebufferStatus(n.FRAMEBUFFER);s!==n.FRAMEBUFFER_COMPLETE&&(t.dispose(),u(n,a),f(s)),u(n,a)}}Object.defineProperties(g,{shape:{get:function(){return this._destroyed?[0,0]:this._shapeVector},set:function(t){if(Array.isArray(t)||(t=[0|t,0|t]),2!==t.length)throw new Error(\\\"gl-fbo: Shape vector must be length 2\\\");var e=0|t[0],r=0|t[1];return v(this,e,r),[e,r]},enumerable:!1},width:{get:function(){return this._destroyed?0:this._shape[0]},set:function(t){return v(this,t|=0,this._shape[1]),t},enumerable:!1},height:{get:function(){return this._destroyed?0:this._shape[1]},set:function(t){return t|=0,v(this,this._shape[0],t),t},enumerable:!1}}),g.bind=function(){if(!this._destroyed){var t=this.gl;t.bindFramebuffer(t.FRAMEBUFFER,this.handle),t.viewport(0,0,this._shape[0],this._shape[1])}},g.dispose=function(){if(!this._destroyed){this._destroyed=!0;var t=this.gl;t.deleteFramebuffer(this.handle),this.handle=null,this.depth&&(this.depth.dispose(),this.depth=null),this._depth_rb&&(t.deleteRenderbuffer(this._depth_rb),this._depth_rb=null);for(var e=0;e<this.color.length;++e)this.color[e].dispose(),this.color[e]=null;this._color_rb&&(t.deleteRenderbuffer(this._color_rb),this._color_rb=null)}}},{\\\"gl-texture2d\\\":317}],249:[function(t,e,r){var n=t(\\\"sprintf-js\\\").sprintf,i=t(\\\"gl-constants/lookup\\\"),a=t(\\\"glsl-shader-name\\\"),o=t(\\\"add-line-numbers\\\");e.exports=function(t,e,r){\\\"use strict\\\";var s=a(e)||\\\"of unknown name (see npm glsl-shader-name)\\\",l=\\\"unknown type\\\";void 0!==r&&(l=r===i.FRAGMENT_SHADER?\\\"fragment\\\":\\\"vertex\\\");for(var c=n(\\\"Error compiling %s shader %s:\\\\n\\\",l,s),u=n(\\\"%s%s\\\",c,t),f=t.split(\\\"\\\\n\\\"),h={},p=0;p<f.length;p++){var d=f[p];if(\\\"\\\"!==d&&\\\"\\\\0\\\"!==d){var g=parseInt(d.split(\\\":\\\")[2]);if(isNaN(g))throw new Error(n(\\\"Could not parse error: %s\\\",d));h[g]=d}}for(var v=o(e).split(\\\"\\\\n\\\"),p=0;p<v.length;p++)if(h[p+3]||h[p+2]||h[p+1]){var m=v[p];if(c+=m+\\\"\\\\n\\\",h[p+1]){var y=h[p+1];y=y.substr(y.split(\\\":\\\",3).join(\\\":\\\").length+1).trim(),c+=n(\\\"^^^ %s\\\\n\\\\n\\\",y)}}return{long:c.trim(),short:u.trim()}}},{\\\"add-line-numbers\\\":54,\\\"gl-constants/lookup\\\":245,\\\"glsl-shader-name\\\":396,\\\"sprintf-js\\\":515}],250:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){var r=t.gl,n=o(r,l.vertex,l.fragment),i=o(r,l.pickVertex,l.pickFragment),a=s(r),u=s(r),f=s(r),h=s(r),p=new c(t,n,i,a,u,f,h);return p.update(e),t.addObject(p),p};var n=t(\\\"binary-search-bounds\\\"),i=t(\\\"iota-array\\\"),a=t(\\\"typedarray-pool\\\"),o=t(\\\"gl-shader\\\"),s=t(\\\"gl-buffer\\\"),l=t(\\\"./lib/shaders\\\");function c(t,e,r,n,i,a,o){this.plot=t,this.shader=e,this.pickShader=r,this.positionBuffer=n,this.weightBuffer=i,this.colorBuffer=a,this.idBuffer=o,this.xData=[],this.yData=[],this.shape=[0,0],this.bounds=[1/0,1/0,-1/0,-1/0],this.pickOffset=0}var u,f=c.prototype,h=[0,0,1,0,0,1,1,0,1,1,0,1];f.draw=(u=[1,0,0,0,1,0,0,0,1],function(){var t=this.plot,e=this.shader,r=this.bounds,n=this.numVertices;if(!(n<=0)){var i=t.gl,a=t.dataBox,o=r[2]-r[0],s=r[3]-r[1],l=a[2]-a[0],c=a[3]-a[1];u[0]=2*o/l,u[4]=2*s/c,u[6]=2*(r[0]-a[0])/l-1,u[7]=2*(r[1]-a[1])/c-1,e.bind();var f=e.uniforms;f.viewTransform=u,f.shape=this.shape;var h=e.attributes;this.positionBuffer.bind(),h.position.pointer(),this.weightBuffer.bind(),h.weight.pointer(i.UNSIGNED_BYTE,!1),this.colorBuffer.bind(),h.color.pointer(i.UNSIGNED_BYTE,!0),i.drawArrays(i.TRIANGLES,0,n)}}),f.drawPick=function(){var t=[1,0,0,0,1,0,0,0,1],e=[0,0,0,0];return function(r){var n=this.plot,i=this.pickShader,a=this.bounds,o=this.numVertices;if(!(o<=0)){var s=n.gl,l=n.dataBox,c=a[2]-a[0],u=a[3]-a[1],f=l[2]-l[0],h=l[3]-l[1];t[0]=2*c/f,t[4]=2*u/h,t[6]=2*(a[0]-l[0])/f-1,t[7]=2*(a[1]-l[1])/h-1;for(var p=0;p<4;++p)e[p]=r>>8*p&255;this.pickOffset=r,i.bind();var d=i.uniforms;d.viewTransform=t,d.pickOffset=e,d.shape=this.shape;var g=i.attributes;return this.positionBuffer.bind(),g.position.pointer(),this.weightBuffer.bind(),g.weight.pointer(s.UNSIGNED_BYTE,!1),this.idBuffer.bind(),g.pickId.pointer(s.UNSIGNED_BYTE,!1),s.drawArrays(s.TRIANGLES,0,o),r+this.shape[0]*this.shape[1]}}}(),f.pick=function(t,e,r){var n=this.pickOffset,i=this.shape[0]*this.shape[1];if(r<n||r>=n+i)return null;var a=r-n,o=this.xData,s=this.yData;return{object:this,pointId:a,dataCoord:[o[a%this.shape[0]],s[a/this.shape[0]|0]]}},f.update=function(t){var e=(t=t||{}).shape||[0,0],r=t.x||i(e[0]),o=t.y||i(e[1]),s=t.z||new Float32Array(e[0]*e[1]);this.xData=r,this.yData=o;var l=t.colorLevels||[0],c=t.colorValues||[0,0,0,1],u=l.length,f=this.bounds,p=f[0]=r[0],d=f[1]=o[0],g=1/((f[2]=r[r.length-1])-p),v=1/((f[3]=o[o.length-1])-d),m=e[0],y=e[1];this.shape=[m,y];var x=(m-1)*(y-1)*(h.length>>>1);this.numVertices=x;for(var b=a.mallocUint8(4*x),_=a.mallocFloat32(2*x),w=a.mallocUint8(2*x),k=a.mallocUint32(x),T=0,A=0;A<y-1;++A)for(var M=v*(o[A]-d),S=v*(o[A+1]-d),E=0;E<m-1;++E)for(var C=g*(r[E]-p),L=g*(r[E+1]-p),z=0;z<h.length;z+=2){var O,I,D,P,R=h[z],F=h[z+1],B=s[(A+F)*m+(E+R)],N=n.le(l,B);if(N<0)O=c[0],I=c[1],D=c[2],P=c[3];else if(N===u-1)O=c[4*u-4],I=c[4*u-3],D=c[4*u-2],P=c[4*u-1];else{var j=(B-l[N])/(l[N+1]-l[N]),V=1-j,U=4*N,H=4*(N+1);O=V*c[U]+j*c[H],I=V*c[U+1]+j*c[H+1],D=V*c[U+2]+j*c[H+2],P=V*c[U+3]+j*c[H+3]}b[4*T]=255*O,b[4*T+1]=255*I,b[4*T+2]=255*D,b[4*T+3]=255*P,_[2*T]=.5*C+.5*L,_[2*T+1]=.5*M+.5*S,w[2*T]=R,w[2*T+1]=F,k[T]=A*m+E,T+=1}this.positionBuffer.update(_),this.weightBuffer.update(w),this.colorBuffer.update(b),this.idBuffer.update(k),a.free(_),a.free(b),a.free(w),a.free(k)},f.dispose=function(){this.shader.dispose(),this.pickShader.dispose(),this.positionBuffer.dispose(),this.weightBuffer.dispose(),this.colorBuffer.dispose(),this.idBuffer.dispose(),this.plot.removeObject(this)}},{\\\"./lib/shaders\\\":251,\\\"binary-search-bounds\\\":252,\\\"gl-buffer\\\":240,\\\"gl-shader\\\":300,\\\"iota-array\\\":411,\\\"typedarray-pool\\\":532}],251:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"glslify\\\");e.exports={fragment:n([\\\"precision lowp float;\\\\n#define GLSLIFY 1\\\\nvarying vec4 fragColor;\\\\nvoid main() {\\\\n  gl_FragColor = vec4(fragColor.rgb * fragColor.a, fragColor.a);\\\\n}\\\\n\\\"]),vertex:n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec2 position;\\\\nattribute vec4 color;\\\\nattribute vec2 weight;\\\\n\\\\nuniform vec2 shape;\\\\nuniform mat3 viewTransform;\\\\n\\\\nvarying vec4 fragColor;\\\\n\\\\nvoid main() {\\\\n  vec3 vPosition = viewTransform * vec3( position + (weight-.5)/(shape-1.) , 1.0);\\\\n  fragColor = color;\\\\n  gl_Position = vec4(vPosition.xy, 0, vPosition.z);\\\\n}\\\\n\\\"]),pickFragment:n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\n\\\\nvarying vec4 fragId;\\\\nvarying vec2 vWeight;\\\\n\\\\nuniform vec2 shape;\\\\nuniform vec4 pickOffset;\\\\n\\\\nvoid main() {\\\\n  vec2 d = step(.5, vWeight);\\\\n  vec4 id = fragId + pickOffset;\\\\n  id.x += d.x + d.y*shape.x;\\\\n\\\\n  id.y += floor(id.x / 256.0);\\\\n  id.x -= floor(id.x / 256.0) * 256.0;\\\\n\\\\n  id.z += floor(id.y / 256.0);\\\\n  id.y -= floor(id.y / 256.0) * 256.0;\\\\n\\\\n  id.w += floor(id.z / 256.0);\\\\n  id.z -= floor(id.z / 256.0) * 256.0;\\\\n\\\\n  gl_FragColor = id/255.;\\\\n}\\\\n\\\"]),pickVertex:n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec2 position;\\\\nattribute vec4 pickId;\\\\nattribute vec2 weight;\\\\n\\\\nuniform vec2 shape;\\\\nuniform mat3 viewTransform;\\\\n\\\\nvarying vec4 fragId;\\\\nvarying vec2 vWeight;\\\\n\\\\nvoid main() {\\\\n  vWeight = weight;\\\\n\\\\n  fragId = pickId;\\\\n\\\\n  vec3 vPosition = viewTransform * vec3( position + (weight-.5)/(shape-1.) , 1.0);\\\\n  gl_Position = vec4(vPosition.xy, 0, vPosition.z);\\\\n}\\\\n\\\"])}},{glslify:404}],252:[function(t,e,r){arguments[4][104][0].apply(r,arguments)},{dup:104}],253:[function(t,e,r){var n=t(\\\"glslify\\\"),i=t(\\\"gl-shader\\\"),a=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec3 position, nextPosition;\\\\nattribute float arcLength, lineWidth;\\\\nattribute vec4 color;\\\\n\\\\nuniform vec2 screenShape;\\\\nuniform float pixelRatio;\\\\nuniform mat4 model, view, projection;\\\\n\\\\nvarying vec4 fragColor;\\\\nvarying vec3 worldPosition;\\\\nvarying float pixelArcLength;\\\\n\\\\nvec4 project(vec3 p) {\\\\n  return projection * view * model * vec4(p, 1.0);\\\\n}\\\\n\\\\nvoid main() {\\\\n  vec4 startPoint = project(position);\\\\n  vec4 endPoint   = project(nextPosition);\\\\n\\\\n  vec2 A = startPoint.xy / startPoint.w;\\\\n  vec2 B =   endPoint.xy /   endPoint.w;\\\\n\\\\n  float clipAngle = atan(\\\\n    (B.y - A.y) * screenShape.y,\\\\n    (B.x - A.x) * screenShape.x\\\\n  );\\\\n\\\\n  vec2 offset = 0.5 * pixelRatio * lineWidth * vec2(\\\\n    sin(clipAngle),\\\\n    -cos(clipAngle)\\\\n  ) / screenShape;\\\\n\\\\n  gl_Position = vec4(startPoint.xy + startPoint.w * offset, startPoint.zw);\\\\n\\\\n  worldPosition = position;\\\\n  pixelArcLength = arcLength;\\\\n  fragColor = color;\\\\n}\\\\n\\\"]),o=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nuniform vec3      clipBounds[2];\\\\nuniform sampler2D dashTexture;\\\\nuniform float     dashScale;\\\\nuniform float     opacity;\\\\n\\\\nvarying vec3    worldPosition;\\\\nvarying float   pixelArcLength;\\\\nvarying vec4    fragColor;\\\\n\\\\nvoid main() {\\\\n  if (\\\\n    outOfRange(clipBounds[0], clipBounds[1], worldPosition) ||\\\\n    fragColor.a * opacity == 0.\\\\n  ) discard;\\\\n\\\\n  float dashWeight = texture2D(dashTexture, vec2(dashScale * pixelArcLength, 0)).r;\\\\n  if(dashWeight < 0.5) {\\\\n    discard;\\\\n  }\\\\n  gl_FragColor = fragColor * opacity;\\\\n}\\\\n\\\"]),s=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\n#define FLOAT_MAX  1.70141184e38\\\\n#define FLOAT_MIN  1.17549435e-38\\\\n\\\\nlowp vec4 encode_float_1540259130(highp float v) {\\\\n  highp float av = abs(v);\\\\n\\\\n  //Handle special cases\\\\n  if(av < FLOAT_MIN) {\\\\n    return vec4(0.0, 0.0, 0.0, 0.0);\\\\n  } else if(v > FLOAT_MAX) {\\\\n    return vec4(127.0, 128.0, 0.0, 0.0) / 255.0;\\\\n  } else if(v < -FLOAT_MAX) {\\\\n    return vec4(255.0, 128.0, 0.0, 0.0) / 255.0;\\\\n  }\\\\n\\\\n  highp vec4 c = vec4(0,0,0,0);\\\\n\\\\n  //Compute exponent and mantissa\\\\n  highp float e = floor(log2(av));\\\\n  highp float m = av * pow(2.0, -e) - 1.0;\\\\n  \\\\n  //Unpack mantissa\\\\n  c[1] = floor(128.0 * m);\\\\n  m -= c[1] / 128.0;\\\\n  c[2] = floor(32768.0 * m);\\\\n  m -= c[2] / 32768.0;\\\\n  c[3] = floor(8388608.0 * m);\\\\n  \\\\n  //Unpack exponent\\\\n  highp float ebias = e + 127.0;\\\\n  c[0] = floor(ebias / 2.0);\\\\n  ebias -= c[0] * 2.0;\\\\n  c[1] += floor(ebias) * 128.0; \\\\n\\\\n  //Unpack sign bit\\\\n  c[0] += 128.0 * step(0.0, -v);\\\\n\\\\n  //Scale back to range\\\\n  return c / 255.0;\\\\n}\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nuniform float pickId;\\\\nuniform vec3 clipBounds[2];\\\\n\\\\nvarying vec3 worldPosition;\\\\nvarying float pixelArcLength;\\\\nvarying vec4 fragColor;\\\\n\\\\nvoid main() {\\\\n  if (outOfRange(clipBounds[0], clipBounds[1], worldPosition)) discard;\\\\n\\\\n  gl_FragColor = vec4(pickId/255.0, encode_float_1540259130(pixelArcLength).xyz);\\\\n}\\\"]),l=[{name:\\\"position\\\",type:\\\"vec3\\\"},{name:\\\"nextPosition\\\",type:\\\"vec3\\\"},{name:\\\"arcLength\\\",type:\\\"float\\\"},{name:\\\"lineWidth\\\",type:\\\"float\\\"},{name:\\\"color\\\",type:\\\"vec4\\\"}];r.createShader=function(t){return i(t,a,o,null,l)},r.createPickShader=function(t){return i(t,a,s,null,l)}},{\\\"gl-shader\\\":300,glslify:404}],254:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=t.gl||t.scene&&t.scene.gl,r=u(e);r.attributes.position.location=0,r.attributes.nextPosition.location=1,r.attributes.arcLength.location=2,r.attributes.lineWidth.location=3,r.attributes.color.location=4;var o=f(e);o.attributes.position.location=0,o.attributes.nextPosition.location=1,o.attributes.arcLength.location=2,o.attributes.lineWidth.location=3,o.attributes.color.location=4;for(var s=n(e),c=i(e,[{buffer:s,size:3,offset:0,stride:48},{buffer:s,size:3,offset:12,stride:48},{buffer:s,size:1,offset:24,stride:48},{buffer:s,size:1,offset:28,stride:48},{buffer:s,size:4,offset:32,stride:48}]),h=l(new Array(1024),[256,1,4]),p=0;p<1024;++p)h.data[p]=255;var d=a(e,h);d.wrap=e.REPEAT;var g=new v(e,r,o,s,c,d);return g.update(t),g};var n=t(\\\"gl-buffer\\\"),i=t(\\\"gl-vao\\\"),a=t(\\\"gl-texture2d\\\"),o=t(\\\"glsl-read-float\\\"),s=t(\\\"binary-search-bounds\\\"),l=t(\\\"ndarray\\\"),c=t(\\\"./lib/shaders\\\"),u=c.createShader,f=c.createPickShader,h=[1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1];function p(t,e){for(var r=0,n=0;n<3;++n){var i=t[n]-e[n];r+=i*i}return Math.sqrt(r)}function d(t){for(var e=[[-1e6,-1e6,-1e6],[1e6,1e6,1e6]],r=0;r<3;++r)e[0][r]=Math.max(t[0][r],e[0][r]),e[1][r]=Math.min(t[1][r],e[1][r]);return e}function g(t,e,r,n){this.arcLength=t,this.position=e,this.index=r,this.dataCoordinate=n}function v(t,e,r,n,i,a){this.gl=t,this.shader=e,this.pickShader=r,this.buffer=n,this.vao=i,this.clipBounds=[[-1/0,-1/0,-1/0],[1/0,1/0,1/0]],this.points=[],this.arcLength=[],this.vertexCount=0,this.bounds=[[0,0,0],[0,0,0]],this.pickId=0,this.lineWidth=1,this.texture=a,this.dashScale=1,this.opacity=1,this.hasAlpha=!1,this.dirty=!0,this.pixelRatio=1}var m=v.prototype;m.isTransparent=function(){return this.hasAlpha},m.isOpaque=function(){return!this.hasAlpha},m.pickSlots=1,m.setPickBase=function(t){this.pickId=t},m.drawTransparent=m.draw=function(t){if(this.vertexCount){var e=this.gl,r=this.shader,n=this.vao;r.bind(),r.uniforms={model:t.model||h,view:t.view||h,projection:t.projection||h,clipBounds:d(this.clipBounds),dashTexture:this.texture.bind(),dashScale:this.dashScale/this.arcLength[this.arcLength.length-1],opacity:this.opacity,screenShape:[e.drawingBufferWidth,e.drawingBufferHeight],pixelRatio:this.pixelRatio},n.bind(),n.draw(e.TRIANGLE_STRIP,this.vertexCount),n.unbind()}},m.drawPick=function(t){if(this.vertexCount){var e=this.gl,r=this.pickShader,n=this.vao;r.bind(),r.uniforms={model:t.model||h,view:t.view||h,projection:t.projection||h,pickId:this.pickId,clipBounds:d(this.clipBounds),screenShape:[e.drawingBufferWidth,e.drawingBufferHeight],pixelRatio:this.pixelRatio},n.bind(),n.draw(e.TRIANGLE_STRIP,this.vertexCount),n.unbind()}},m.update=function(t){var e,r;this.dirty=!0;var n=!!t.connectGaps;\\\"dashScale\\\"in t&&(this.dashScale=t.dashScale),this.hasAlpha=!1,\\\"opacity\\\"in t&&(this.opacity=+t.opacity,this.opacity<1&&(this.hasAlpha=!0));var i=[],a=[],o=[],c=0,u=0,f=[[1/0,1/0,1/0],[-1/0,-1/0,-1/0]],h=t.position||t.positions;if(h){var d=t.color||t.colors||[0,0,0,1],g=t.lineWidth||1,v=!1;t:for(e=1;e<h.length;++e){var m,y,x,b=h[e-1],_=h[e];for(a.push(c),o.push(b.slice()),r=0;r<3;++r){if(isNaN(b[r])||isNaN(_[r])||!isFinite(b[r])||!isFinite(_[r])){if(!n&&i.length>0){for(var w=0;w<24;++w)i.push(i[i.length-12]);u+=2,v=!0}continue t}f[0][r]=Math.min(f[0][r],b[r],_[r]),f[1][r]=Math.max(f[1][r],b[r],_[r])}Array.isArray(d[0])?(m=d.length>e-1?d[e-1]:d.length>0?d[d.length-1]:[0,0,0,1],y=d.length>e?d[e]:d.length>0?d[d.length-1]:[0,0,0,1]):m=y=d,3===m.length&&(m=[m[0],m[1],m[2],1]),3===y.length&&(y=[y[0],y[1],y[2],1]),!this.hasAlpha&&m[3]<1&&(this.hasAlpha=!0),x=Array.isArray(g)?g.length>e-1?g[e-1]:g.length>0?g[g.length-1]:[0,0,0,1]:g;var k=c;if(c+=p(b,_),v){for(r=0;r<2;++r)i.push(b[0],b[1],b[2],_[0],_[1],_[2],k,x,m[0],m[1],m[2],m[3]);u+=2,v=!1}i.push(b[0],b[1],b[2],_[0],_[1],_[2],k,x,m[0],m[1],m[2],m[3],b[0],b[1],b[2],_[0],_[1],_[2],k,-x,m[0],m[1],m[2],m[3],_[0],_[1],_[2],b[0],b[1],b[2],c,-x,y[0],y[1],y[2],y[3],_[0],_[1],_[2],b[0],b[1],b[2],c,x,y[0],y[1],y[2],y[3]),u+=4}}if(this.buffer.update(i),a.push(c),o.push(h[h.length-1].slice()),this.bounds=f,this.vertexCount=u,this.points=o,this.arcLength=a,\\\"dashes\\\"in t){var T=t.dashes.slice();for(T.unshift(0),e=1;e<T.length;++e)T[e]=T[e-1]+T[e];var A=l(new Array(1024),[256,1,4]);for(e=0;e<256;++e){for(r=0;r<4;++r)A.set(e,0,r,0);1&s.le(T,T[T.length-1]*e/255)?A.set(e,0,0,0):A.set(e,0,0,255)}this.texture.setPixels(A)}},m.dispose=function(){this.shader.dispose(),this.vao.dispose(),this.buffer.dispose()},m.pick=function(t){if(!t)return null;if(t.id!==this.pickId)return null;var e=o(t.value[0],t.value[1],t.value[2],0),r=s.le(this.arcLength,e);if(r<0)return null;if(r===this.arcLength.length-1)return new g(this.arcLength[this.arcLength.length-1],this.points[this.points.length-1].slice(),r);for(var n=this.points[r],i=this.points[Math.min(r+1,this.points.length-1)],a=(e-this.arcLength[r])/(this.arcLength[r+1]-this.arcLength[r]),l=1-a,c=[0,0,0],u=0;u<3;++u)c[u]=l*n[u]+a*i[u];var f=Math.min(a<.5?r:r+1,this.points.length-1);return new g(e,c,f,this.points[f])}},{\\\"./lib/shaders\\\":253,\\\"binary-search-bounds\\\":255,\\\"gl-buffer\\\":240,\\\"gl-texture2d\\\":317,\\\"gl-vao\\\":322,\\\"glsl-read-float\\\":395,ndarray:445}],255:[function(t,e,r){arguments[4][104][0].apply(r,arguments)},{dup:104}],256:[function(t,e,r){e.exports=function(t,e){var r=e[0],n=e[1],i=e[2],a=e[3],o=r*a-i*n;return o?(o=1/o,t[0]=a*o,t[1]=-n*o,t[2]=-i*o,t[3]=r*o,t):null}},{}],257:[function(t,e,r){e.exports=function(t,e){var r=e[0],n=e[1],i=e[2],a=e[3],o=e[4],s=e[5],l=e[6],c=e[7],u=e[8],f=u*o-s*c,h=-u*a+s*l,p=c*a-o*l,d=r*f+n*h+i*p;return d?(d=1/d,t[0]=f*d,t[1]=(-u*n+i*c)*d,t[2]=(s*n-i*o)*d,t[3]=h*d,t[4]=(u*r-i*l)*d,t[5]=(-s*r+i*a)*d,t[6]=p*d,t[7]=(-c*r+n*l)*d,t[8]=(o*r-n*a)*d,t):null}},{}],258:[function(t,e,r){e.exports=function(t){var e=new Float32Array(16);return e[0]=t[0],e[1]=t[1],e[2]=t[2],e[3]=t[3],e[4]=t[4],e[5]=t[5],e[6]=t[6],e[7]=t[7],e[8]=t[8],e[9]=t[9],e[10]=t[10],e[11]=t[11],e[12]=t[12],e[13]=t[13],e[14]=t[14],e[15]=t[15],e}},{}],259:[function(t,e,r){e.exports=function(){var t=new Float32Array(16);return t[0]=1,t[1]=0,t[2]=0,t[3]=0,t[4]=0,t[5]=1,t[6]=0,t[7]=0,t[8]=0,t[9]=0,t[10]=1,t[11]=0,t[12]=0,t[13]=0,t[14]=0,t[15]=1,t}},{}],260:[function(t,e,r){e.exports=function(t){var e=t[0],r=t[1],n=t[2],i=t[3],a=t[4],o=t[5],s=t[6],l=t[7],c=t[8],u=t[9],f=t[10],h=t[11],p=t[12],d=t[13],g=t[14],v=t[15];return(e*o-r*a)*(f*v-h*g)-(e*s-n*a)*(u*v-h*d)+(e*l-i*a)*(u*g-f*d)+(r*s-n*o)*(c*v-h*p)-(r*l-i*o)*(c*g-f*p)+(n*l-i*s)*(c*d-u*p)}},{}],261:[function(t,e,r){e.exports=function(t,e){var r=e[0],n=e[1],i=e[2],a=e[3],o=r+r,s=n+n,l=i+i,c=r*o,u=n*o,f=n*s,h=i*o,p=i*s,d=i*l,g=a*o,v=a*s,m=a*l;return t[0]=1-f-d,t[1]=u+m,t[2]=h-v,t[3]=0,t[4]=u-m,t[5]=1-c-d,t[6]=p+g,t[7]=0,t[8]=h+v,t[9]=p-g,t[10]=1-c-f,t[11]=0,t[12]=0,t[13]=0,t[14]=0,t[15]=1,t}},{}],262:[function(t,e,r){e.exports=function(t,e,r){var n=e[0],i=e[1],a=e[2],o=e[3],s=n+n,l=i+i,c=a+a,u=n*s,f=n*l,h=n*c,p=i*l,d=i*c,g=a*c,v=o*s,m=o*l,y=o*c;return t[0]=1-(p+g),t[1]=f+y,t[2]=h-m,t[3]=0,t[4]=f-y,t[5]=1-(u+g),t[6]=d+v,t[7]=0,t[8]=h+m,t[9]=d-v,t[10]=1-(u+p),t[11]=0,t[12]=r[0],t[13]=r[1],t[14]=r[2],t[15]=1,t}},{}],263:[function(t,e,r){e.exports=function(t){return t[0]=1,t[1]=0,t[2]=0,t[3]=0,t[4]=0,t[5]=1,t[6]=0,t[7]=0,t[8]=0,t[9]=0,t[10]=1,t[11]=0,t[12]=0,t[13]=0,t[14]=0,t[15]=1,t}},{}],264:[function(t,e,r){e.exports=function(t,e){var r=e[0],n=e[1],i=e[2],a=e[3],o=e[4],s=e[5],l=e[6],c=e[7],u=e[8],f=e[9],h=e[10],p=e[11],d=e[12],g=e[13],v=e[14],m=e[15],y=r*s-n*o,x=r*l-i*o,b=r*c-a*o,_=n*l-i*s,w=n*c-a*s,k=i*c-a*l,T=u*g-f*d,A=u*v-h*d,M=u*m-p*d,S=f*v-h*g,E=f*m-p*g,C=h*m-p*v,L=y*C-x*E+b*S+_*M-w*A+k*T;if(!L)return null;return L=1/L,t[0]=(s*C-l*E+c*S)*L,t[1]=(i*E-n*C-a*S)*L,t[2]=(g*k-v*w+m*_)*L,t[3]=(h*w-f*k-p*_)*L,t[4]=(l*M-o*C-c*A)*L,t[5]=(r*C-i*M+a*A)*L,t[6]=(v*b-d*k-m*x)*L,t[7]=(u*k-h*b+p*x)*L,t[8]=(o*E-s*M+c*T)*L,t[9]=(n*M-r*E-a*T)*L,t[10]=(d*w-g*b+m*y)*L,t[11]=(f*b-u*w-p*y)*L,t[12]=(s*A-o*S-l*T)*L,t[13]=(r*S-n*A+i*T)*L,t[14]=(g*x-d*_-v*y)*L,t[15]=(u*_-f*x+h*y)*L,t}},{}],265:[function(t,e,r){var n=t(\\\"./identity\\\");e.exports=function(t,e,r,i){var a,o,s,l,c,u,f,h,p,d,g=e[0],v=e[1],m=e[2],y=i[0],x=i[1],b=i[2],_=r[0],w=r[1],k=r[2];if(Math.abs(g-_)<1e-6&&Math.abs(v-w)<1e-6&&Math.abs(m-k)<1e-6)return n(t);f=g-_,h=v-w,p=m-k,d=1/Math.sqrt(f*f+h*h+p*p),a=x*(p*=d)-b*(h*=d),o=b*(f*=d)-y*p,s=y*h-x*f,(d=Math.sqrt(a*a+o*o+s*s))?(a*=d=1/d,o*=d,s*=d):(a=0,o=0,s=0);l=h*s-p*o,c=p*a-f*s,u=f*o-h*a,(d=Math.sqrt(l*l+c*c+u*u))?(l*=d=1/d,c*=d,u*=d):(l=0,c=0,u=0);return t[0]=a,t[1]=l,t[2]=f,t[3]=0,t[4]=o,t[5]=c,t[6]=h,t[7]=0,t[8]=s,t[9]=u,t[10]=p,t[11]=0,t[12]=-(a*g+o*v+s*m),t[13]=-(l*g+c*v+u*m),t[14]=-(f*g+h*v+p*m),t[15]=1,t}},{\\\"./identity\\\":263}],266:[function(t,e,r){e.exports=function(t,e,r){var n=e[0],i=e[1],a=e[2],o=e[3],s=e[4],l=e[5],c=e[6],u=e[7],f=e[8],h=e[9],p=e[10],d=e[11],g=e[12],v=e[13],m=e[14],y=e[15],x=r[0],b=r[1],_=r[2],w=r[3];return t[0]=x*n+b*s+_*f+w*g,t[1]=x*i+b*l+_*h+w*v,t[2]=x*a+b*c+_*p+w*m,t[3]=x*o+b*u+_*d+w*y,x=r[4],b=r[5],_=r[6],w=r[7],t[4]=x*n+b*s+_*f+w*g,t[5]=x*i+b*l+_*h+w*v,t[6]=x*a+b*c+_*p+w*m,t[7]=x*o+b*u+_*d+w*y,x=r[8],b=r[9],_=r[10],w=r[11],t[8]=x*n+b*s+_*f+w*g,t[9]=x*i+b*l+_*h+w*v,t[10]=x*a+b*c+_*p+w*m,t[11]=x*o+b*u+_*d+w*y,x=r[12],b=r[13],_=r[14],w=r[15],t[12]=x*n+b*s+_*f+w*g,t[13]=x*i+b*l+_*h+w*v,t[14]=x*a+b*c+_*p+w*m,t[15]=x*o+b*u+_*d+w*y,t}},{}],267:[function(t,e,r){e.exports=function(t,e,r,n,i,a,o){var s=1/(e-r),l=1/(n-i),c=1/(a-o);return t[0]=-2*s,t[1]=0,t[2]=0,t[3]=0,t[4]=0,t[5]=-2*l,t[6]=0,t[7]=0,t[8]=0,t[9]=0,t[10]=2*c,t[11]=0,t[12]=(e+r)*s,t[13]=(i+n)*l,t[14]=(o+a)*c,t[15]=1,t}},{}],268:[function(t,e,r){e.exports=function(t,e,r,n,i){var a=1/Math.tan(e/2),o=1/(n-i);return t[0]=a/r,t[1]=0,t[2]=0,t[3]=0,t[4]=0,t[5]=a,t[6]=0,t[7]=0,t[8]=0,t[9]=0,t[10]=(i+n)*o,t[11]=-1,t[12]=0,t[13]=0,t[14]=2*i*n*o,t[15]=0,t}},{}],269:[function(t,e,r){e.exports=function(t,e,r,n){var i,a,o,s,l,c,u,f,h,p,d,g,v,m,y,x,b,_,w,k,T,A,M,S,E=n[0],C=n[1],L=n[2],z=Math.sqrt(E*E+C*C+L*L);if(Math.abs(z)<1e-6)return null;E*=z=1/z,C*=z,L*=z,i=Math.sin(r),a=Math.cos(r),o=1-a,s=e[0],l=e[1],c=e[2],u=e[3],f=e[4],h=e[5],p=e[6],d=e[7],g=e[8],v=e[9],m=e[10],y=e[11],x=E*E*o+a,b=C*E*o+L*i,_=L*E*o-C*i,w=E*C*o-L*i,k=C*C*o+a,T=L*C*o+E*i,A=E*L*o+C*i,M=C*L*o-E*i,S=L*L*o+a,t[0]=s*x+f*b+g*_,t[1]=l*x+h*b+v*_,t[2]=c*x+p*b+m*_,t[3]=u*x+d*b+y*_,t[4]=s*w+f*k+g*T,t[5]=l*w+h*k+v*T,t[6]=c*w+p*k+m*T,t[7]=u*w+d*k+y*T,t[8]=s*A+f*M+g*S,t[9]=l*A+h*M+v*S,t[10]=c*A+p*M+m*S,t[11]=u*A+d*M+y*S,e!==t&&(t[12]=e[12],t[13]=e[13],t[14]=e[14],t[15]=e[15]);return t}},{}],270:[function(t,e,r){e.exports=function(t,e,r){var n=Math.sin(r),i=Math.cos(r),a=e[4],o=e[5],s=e[6],l=e[7],c=e[8],u=e[9],f=e[10],h=e[11];e!==t&&(t[0]=e[0],t[1]=e[1],t[2]=e[2],t[3]=e[3],t[12]=e[12],t[13]=e[13],t[14]=e[14],t[15]=e[15]);return t[4]=a*i+c*n,t[5]=o*i+u*n,t[6]=s*i+f*n,t[7]=l*i+h*n,t[8]=c*i-a*n,t[9]=u*i-o*n,t[10]=f*i-s*n,t[11]=h*i-l*n,t}},{}],271:[function(t,e,r){e.exports=function(t,e,r){var n=Math.sin(r),i=Math.cos(r),a=e[0],o=e[1],s=e[2],l=e[3],c=e[8],u=e[9],f=e[10],h=e[11];e!==t&&(t[4]=e[4],t[5]=e[5],t[6]=e[6],t[7]=e[7],t[12]=e[12],t[13]=e[13],t[14]=e[14],t[15]=e[15]);return t[0]=a*i-c*n,t[1]=o*i-u*n,t[2]=s*i-f*n,t[3]=l*i-h*n,t[8]=a*n+c*i,t[9]=o*n+u*i,t[10]=s*n+f*i,t[11]=l*n+h*i,t}},{}],272:[function(t,e,r){e.exports=function(t,e,r){var n=Math.sin(r),i=Math.cos(r),a=e[0],o=e[1],s=e[2],l=e[3],c=e[4],u=e[5],f=e[6],h=e[7];e!==t&&(t[8]=e[8],t[9]=e[9],t[10]=e[10],t[11]=e[11],t[12]=e[12],t[13]=e[13],t[14]=e[14],t[15]=e[15]);return t[0]=a*i+c*n,t[1]=o*i+u*n,t[2]=s*i+f*n,t[3]=l*i+h*n,t[4]=c*i-a*n,t[5]=u*i-o*n,t[6]=f*i-s*n,t[7]=h*i-l*n,t}},{}],273:[function(t,e,r){e.exports=function(t,e,r){var n=r[0],i=r[1],a=r[2];return t[0]=e[0]*n,t[1]=e[1]*n,t[2]=e[2]*n,t[3]=e[3]*n,t[4]=e[4]*i,t[5]=e[5]*i,t[6]=e[6]*i,t[7]=e[7]*i,t[8]=e[8]*a,t[9]=e[9]*a,t[10]=e[10]*a,t[11]=e[11]*a,t[12]=e[12],t[13]=e[13],t[14]=e[14],t[15]=e[15],t}},{}],274:[function(t,e,r){e.exports=function(t,e,r){var n,i,a,o,s,l,c,u,f,h,p,d,g=r[0],v=r[1],m=r[2];e===t?(t[12]=e[0]*g+e[4]*v+e[8]*m+e[12],t[13]=e[1]*g+e[5]*v+e[9]*m+e[13],t[14]=e[2]*g+e[6]*v+e[10]*m+e[14],t[15]=e[3]*g+e[7]*v+e[11]*m+e[15]):(n=e[0],i=e[1],a=e[2],o=e[3],s=e[4],l=e[5],c=e[6],u=e[7],f=e[8],h=e[9],p=e[10],d=e[11],t[0]=n,t[1]=i,t[2]=a,t[3]=o,t[4]=s,t[5]=l,t[6]=c,t[7]=u,t[8]=f,t[9]=h,t[10]=p,t[11]=d,t[12]=n*g+s*v+f*m+e[12],t[13]=i*g+l*v+h*m+e[13],t[14]=a*g+c*v+p*m+e[14],t[15]=o*g+u*v+d*m+e[15]);return t}},{}],275:[function(t,e,r){e.exports=function(t,e){if(t===e){var r=e[1],n=e[2],i=e[3],a=e[6],o=e[7],s=e[11];t[1]=e[4],t[2]=e[8],t[3]=e[12],t[4]=r,t[6]=e[9],t[7]=e[13],t[8]=n,t[9]=a,t[11]=e[14],t[12]=i,t[13]=o,t[14]=s}else t[0]=e[0],t[1]=e[4],t[2]=e[8],t[3]=e[12],t[4]=e[1],t[5]=e[5],t[6]=e[9],t[7]=e[13],t[8]=e[2],t[9]=e[6],t[10]=e[10],t[11]=e[14],t[12]=e[3],t[13]=e[7],t[14]=e[11],t[15]=e[15];return t}},{}],276:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){switch(e.length){case 0:break;case 1:t[0]=1/e[0];break;case 4:n(t,e);break;case 9:i(t,e);break;case 16:a(t,e);break;default:throw new Error(\\\"currently supports matrices up to 4x4\\\")}return t};var n=t(\\\"gl-mat2/invert\\\"),i=t(\\\"gl-mat3/invert\\\"),a=t(\\\"gl-mat4/invert\\\")},{\\\"gl-mat2/invert\\\":256,\\\"gl-mat3/invert\\\":257,\\\"gl-mat4/invert\\\":264}],277:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"barycentric\\\"),i=t(\\\"polytope-closest-point/lib/closest_point_2d.js\\\");function a(t,e){for(var r=[0,0,0,0],n=0;n<4;++n)for(var i=0;i<4;++i)r[i]+=t[4*n+i]*e[n];return r}function o(t,e,r,n,i){for(var o=a(n,a(r,a(e,[t[0],t[1],t[2],1]))),s=0;s<3;++s)o[s]/=o[3];return[.5*i[0]*(1+o[0]),.5*i[1]*(1-o[1])]}e.exports=function(t,e,r,a,s,l){if(1===t.length)return[0,t[0].slice()];for(var c=new Array(t.length),u=0;u<t.length;++u)c[u]=o(t[u],r,a,s,l);for(var f=0,h=1/0,u=0;u<c.length;++u){for(var p=0,d=0;d<2;++d)p+=Math.pow(c[u][d]-e[d],2);p<h&&(h=p,f=u)}for(var g=function(t,e){if(2===t.length){for(var r=0,a=0,o=0;o<2;++o)r+=Math.pow(e[o]-t[0][o],2),a+=Math.pow(e[o]-t[1][o],2);return r=Math.sqrt(r),a=Math.sqrt(a),r+a<1e-6?[1,0]:[a/(r+a),r/(a+r)]}if(3===t.length){var s=[0,0];return i(t[0],t[1],t[2],e,s),n(t,s)}return[]}(c,e),v=0,u=0;u<3;++u){if(g[u]<-.001||g[u]>1.0001)return null;v+=g[u]}if(Math.abs(v-1)>.001)return null;return[f,function(t,e){for(var r=[0,0,0],n=0;n<t.length;++n)for(var i=t[n],a=e[n],o=0;o<3;++o)r[o]+=a*i[o];return r}(t,g),g]}},{barycentric:66,\\\"polytope-closest-point/lib/closest_point_2d.js\\\":476}],278:[function(t,e,r){var n=t(\\\"glslify\\\"),i=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec3 position, normal;\\\\nattribute vec4 color;\\\\nattribute vec2 uv;\\\\n\\\\nuniform mat4 model\\\\n           , view\\\\n           , projection\\\\n           , inverseModel;\\\\nuniform vec3 eyePosition\\\\n           , lightPosition;\\\\n\\\\nvarying vec3 f_normal\\\\n           , f_lightDirection\\\\n           , f_eyeDirection\\\\n           , f_data;\\\\nvarying vec4 f_color;\\\\nvarying vec2 f_uv;\\\\n\\\\nvec4 project(vec3 p) {\\\\n  return projection * view * model * vec4(p, 1.0);\\\\n}\\\\n\\\\nvoid main() {\\\\n  gl_Position      = project(position);\\\\n\\\\n  //Lighting geometry parameters\\\\n  vec4 cameraCoordinate = view * vec4(position , 1.0);\\\\n  cameraCoordinate.xyz /= cameraCoordinate.w;\\\\n  f_lightDirection = lightPosition - cameraCoordinate.xyz;\\\\n  f_eyeDirection   = eyePosition - cameraCoordinate.xyz;\\\\n  f_normal  = normalize((vec4(normal, 0.0) * inverseModel).xyz);\\\\n\\\\n  f_color          = color;\\\\n  f_data           = position;\\\\n  f_uv             = uv;\\\\n}\\\\n\\\"]),a=n([\\\"#extension GL_OES_standard_derivatives : enable\\\\n\\\\nprecision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nfloat beckmannDistribution(float x, float roughness) {\\\\n  float NdotH = max(x, 0.0001);\\\\n  float cos2Alpha = NdotH * NdotH;\\\\n  float tan2Alpha = (cos2Alpha - 1.0) / cos2Alpha;\\\\n  float roughness2 = roughness * roughness;\\\\n  float denom = 3.141592653589793 * roughness2 * cos2Alpha * cos2Alpha;\\\\n  return exp(tan2Alpha / roughness2) / denom;\\\\n}\\\\n\\\\nfloat cookTorranceSpecular(\\\\n  vec3 lightDirection,\\\\n  vec3 viewDirection,\\\\n  vec3 surfaceNormal,\\\\n  float roughness,\\\\n  float fresnel) {\\\\n\\\\n  float VdotN = max(dot(viewDirection, surfaceNormal), 0.0);\\\\n  float LdotN = max(dot(lightDirection, surfaceNormal), 0.0);\\\\n\\\\n  //Half angle vector\\\\n  vec3 H = normalize(lightDirection + viewDirection);\\\\n\\\\n  //Geometric term\\\\n  float NdotH = max(dot(surfaceNormal, H), 0.0);\\\\n  float VdotH = max(dot(viewDirection, H), 0.000001);\\\\n  float LdotH = max(dot(lightDirection, H), 0.000001);\\\\n  float G1 = (2.0 * NdotH * VdotN) / VdotH;\\\\n  float G2 = (2.0 * NdotH * LdotN) / LdotH;\\\\n  float G = min(1.0, min(G1, G2));\\\\n  \\\\n  //Distribution term\\\\n  float D = beckmannDistribution(NdotH, roughness);\\\\n\\\\n  //Fresnel term\\\\n  float F = pow(1.0 - VdotN, fresnel);\\\\n\\\\n  //Multiply terms and done\\\\n  return  G * F * D / max(3.14159265 * VdotN, 0.000001);\\\\n}\\\\n\\\\n//#pragma glslify: beckmann = require(glsl-specular-beckmann) // used in gl-surface3d\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nuniform vec3 clipBounds[2];\\\\nuniform float roughness\\\\n            , fresnel\\\\n            , kambient\\\\n            , kdiffuse\\\\n            , kspecular;\\\\nuniform sampler2D texture;\\\\n\\\\nvarying vec3 f_normal\\\\n           , f_lightDirection\\\\n           , f_eyeDirection\\\\n           , f_data;\\\\nvarying vec4 f_color;\\\\nvarying vec2 f_uv;\\\\n\\\\nvoid main() {\\\\n  if (f_color.a == 0.0 ||\\\\n    outOfRange(clipBounds[0], clipBounds[1], f_data)\\\\n  ) discard;\\\\n\\\\n  vec3 N = normalize(f_normal);\\\\n  vec3 L = normalize(f_lightDirection);\\\\n  vec3 V = normalize(f_eyeDirection);\\\\n\\\\n  if(gl_FrontFacing) {\\\\n    N = -N;\\\\n  }\\\\n\\\\n  float specular = min(1.0, max(0.0, cookTorranceSpecular(L, V, N, roughness, fresnel)));\\\\n  //float specular = max(0.0, beckmann(L, V, N, roughness)); // used in gl-surface3d\\\\n\\\\n  float diffuse  = min(kambient + kdiffuse * max(dot(N, L), 0.0), 1.0);\\\\n\\\\n  vec4 surfaceColor = vec4(f_color.rgb, 1.0) * texture2D(texture, f_uv);\\\\n  vec4 litColor = surfaceColor.a * vec4(diffuse * surfaceColor.rgb + kspecular * vec3(1,1,1) * specular,  1.0);\\\\n\\\\n  gl_FragColor = litColor * f_color.a;\\\\n}\\\\n\\\"]),o=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec3 position;\\\\nattribute vec4 color;\\\\nattribute vec2 uv;\\\\n\\\\nuniform mat4 model, view, projection;\\\\n\\\\nvarying vec4 f_color;\\\\nvarying vec3 f_data;\\\\nvarying vec2 f_uv;\\\\n\\\\nvoid main() {\\\\n  gl_Position = projection * view * model * vec4(position, 1.0);\\\\n  f_color = color;\\\\n  f_data  = position;\\\\n  f_uv    = uv;\\\\n}\\\"]),s=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nuniform vec3 clipBounds[2];\\\\nuniform sampler2D texture;\\\\nuniform float opacity;\\\\n\\\\nvarying vec4 f_color;\\\\nvarying vec3 f_data;\\\\nvarying vec2 f_uv;\\\\n\\\\nvoid main() {\\\\n  if (outOfRange(clipBounds[0], clipBounds[1], f_data)) discard;\\\\n\\\\n  gl_FragColor = f_color * texture2D(texture, f_uv) * opacity;\\\\n}\\\"]),l=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nattribute vec3 position;\\\\nattribute vec4 color;\\\\nattribute vec2 uv;\\\\nattribute float pointSize;\\\\n\\\\nuniform mat4 model, view, projection;\\\\nuniform vec3 clipBounds[2];\\\\n\\\\nvarying vec4 f_color;\\\\nvarying vec2 f_uv;\\\\n\\\\nvoid main() {\\\\n  if (outOfRange(clipBounds[0], clipBounds[1], position)) {\\\\n\\\\n    gl_Position = vec4(0.0, 0.0 ,0.0 ,0.0);\\\\n  } else {\\\\n    gl_Position = projection * view * model * vec4(position, 1.0);\\\\n  }\\\\n  gl_PointSize = pointSize;\\\\n  f_color = color;\\\\n  f_uv = uv;\\\\n}\\\"]),c=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nuniform sampler2D texture;\\\\nuniform float opacity;\\\\n\\\\nvarying vec4 f_color;\\\\nvarying vec2 f_uv;\\\\n\\\\nvoid main() {\\\\n  vec2 pointR = gl_PointCoord.xy - vec2(0.5, 0.5);\\\\n  if(dot(pointR, pointR) > 0.25) {\\\\n    discard;\\\\n  }\\\\n  gl_FragColor = f_color * texture2D(texture, f_uv) * opacity;\\\\n}\\\"]),u=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec3 position;\\\\nattribute vec4 id;\\\\n\\\\nuniform mat4 model, view, projection;\\\\n\\\\nvarying vec3 f_position;\\\\nvarying vec4 f_id;\\\\n\\\\nvoid main() {\\\\n  gl_Position = projection * view * model * vec4(position, 1.0);\\\\n  f_id        = id;\\\\n  f_position  = position;\\\\n}\\\"]),f=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nuniform vec3  clipBounds[2];\\\\nuniform float pickId;\\\\n\\\\nvarying vec3 f_position;\\\\nvarying vec4 f_id;\\\\n\\\\nvoid main() {\\\\n  if (outOfRange(clipBounds[0], clipBounds[1], f_position)) discard;\\\\n\\\\n  gl_FragColor = vec4(pickId, f_id.xyz);\\\\n}\\\"]),h=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nattribute vec3  position;\\\\nattribute float pointSize;\\\\nattribute vec4  id;\\\\n\\\\nuniform mat4 model, view, projection;\\\\nuniform vec3 clipBounds[2];\\\\n\\\\nvarying vec3 f_position;\\\\nvarying vec4 f_id;\\\\n\\\\nvoid main() {\\\\n  if (outOfRange(clipBounds[0], clipBounds[1], position)) {\\\\n\\\\n    gl_Position = vec4(0.0, 0.0, 0.0, 0.0);\\\\n  } else {\\\\n    gl_Position  = projection * view * model * vec4(position, 1.0);\\\\n    gl_PointSize = pointSize;\\\\n  }\\\\n  f_id         = id;\\\\n  f_position   = position;\\\\n}\\\"]),p=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec3 position;\\\\n\\\\nuniform mat4 model, view, projection;\\\\n\\\\nvoid main() {\\\\n  gl_Position = projection * view * model * vec4(position, 1.0);\\\\n}\\\"]),d=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nuniform vec3 contourColor;\\\\n\\\\nvoid main() {\\\\n  gl_FragColor = vec4(contourColor, 1.0);\\\\n}\\\\n\\\"]);r.meshShader={vertex:i,fragment:a,attributes:[{name:\\\"position\\\",type:\\\"vec3\\\"},{name:\\\"normal\\\",type:\\\"vec3\\\"},{name:\\\"color\\\",type:\\\"vec4\\\"},{name:\\\"uv\\\",type:\\\"vec2\\\"}]},r.wireShader={vertex:o,fragment:s,attributes:[{name:\\\"position\\\",type:\\\"vec3\\\"},{name:\\\"color\\\",type:\\\"vec4\\\"},{name:\\\"uv\\\",type:\\\"vec2\\\"}]},r.pointShader={vertex:l,fragment:c,attributes:[{name:\\\"position\\\",type:\\\"vec3\\\"},{name:\\\"color\\\",type:\\\"vec4\\\"},{name:\\\"uv\\\",type:\\\"vec2\\\"},{name:\\\"pointSize\\\",type:\\\"float\\\"}]},r.pickShader={vertex:u,fragment:f,attributes:[{name:\\\"position\\\",type:\\\"vec3\\\"},{name:\\\"id\\\",type:\\\"vec4\\\"}]},r.pointPickShader={vertex:h,fragment:f,attributes:[{name:\\\"position\\\",type:\\\"vec3\\\"},{name:\\\"pointSize\\\",type:\\\"float\\\"},{name:\\\"id\\\",type:\\\"vec4\\\"}]},r.contourShader={vertex:p,fragment:d,attributes:[{name:\\\"position\\\",type:\\\"vec3\\\"}]}},{glslify:404}],279:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-shader\\\"),i=t(\\\"gl-buffer\\\"),a=t(\\\"gl-vao\\\"),o=t(\\\"gl-texture2d\\\"),s=t(\\\"normals\\\"),l=t(\\\"gl-mat4/multiply\\\"),c=t(\\\"gl-mat4/invert\\\"),u=t(\\\"ndarray\\\"),f=t(\\\"colormap\\\"),h=t(\\\"simplicial-complex-contour\\\"),p=t(\\\"typedarray-pool\\\"),d=t(\\\"./lib/shaders\\\"),g=t(\\\"./lib/closest-point\\\"),v=d.meshShader,m=d.wireShader,y=d.pointShader,x=d.pickShader,b=d.pointPickShader,_=d.contourShader,w=[1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1];function k(t,e,r,n,i,a,o,s,l,c,u,f,h,p,d,g,v,m,y,x,b,_,k,T,A,M,S){this.gl=t,this.pixelRatio=1,this.cells=[],this.positions=[],this.intensity=[],this.texture=e,this.dirty=!0,this.triShader=r,this.lineShader=n,this.pointShader=i,this.pickShader=a,this.pointPickShader=o,this.contourShader=s,this.trianglePositions=l,this.triangleColors=u,this.triangleNormals=h,this.triangleUVs=f,this.triangleIds=c,this.triangleVAO=p,this.triangleCount=0,this.lineWidth=1,this.edgePositions=d,this.edgeColors=v,this.edgeUVs=m,this.edgeIds=g,this.edgeVAO=y,this.edgeCount=0,this.pointPositions=x,this.pointColors=_,this.pointUVs=k,this.pointSizes=T,this.pointIds=b,this.pointVAO=A,this.pointCount=0,this.contourLineWidth=1,this.contourPositions=M,this.contourVAO=S,this.contourCount=0,this.contourColor=[0,0,0],this.contourEnable=!0,this.pickId=1,this.bounds=[[1/0,1/0,1/0],[-1/0,-1/0,-1/0]],this.clipBounds=[[-1/0,-1/0,-1/0],[1/0,1/0,1/0]],this.lightPosition=[1e5,1e5,0],this.ambientLight=.8,this.diffuseLight=.8,this.specularLight=2,this.roughness=.5,this.fresnel=1.5,this.opacity=1,this.hasAlpha=!1,this.opacityscale=!1,this._model=w,this._view=w,this._projection=w,this._resolution=[1,1]}var T=k.prototype;function A(t,e){if(!e)return 1;if(!e.length)return 1;for(var r=0;r<e.length;++r){if(e.length<2)return 1;if(e[r][0]===t)return e[r][1];if(e[r][0]>t&&r>0){var n=(e[r][0]-t)/(e[r][0]-e[r-1][0]);return e[r][1]*(1-n)+n*e[r-1][1]}}return 1}function M(t){var e=n(t,y.vertex,y.fragment);return e.attributes.position.location=0,e.attributes.color.location=2,e.attributes.uv.location=3,e.attributes.pointSize.location=4,e}function S(t){var e=n(t,x.vertex,x.fragment);return e.attributes.position.location=0,e.attributes.id.location=1,e}function E(t){var e=n(t,b.vertex,b.fragment);return e.attributes.position.location=0,e.attributes.id.location=1,e.attributes.pointSize.location=4,e}function C(t){var e=n(t,_.vertex,_.fragment);return e.attributes.position.location=0,e}T.isOpaque=function(){return!this.hasAlpha},T.isTransparent=function(){return this.hasAlpha},T.pickSlots=1,T.setPickBase=function(t){this.pickId=t},T.highlight=function(t){if(t&&this.contourEnable){for(var e=h(this.cells,this.intensity,t.intensity),r=e.cells,n=e.vertexIds,i=e.vertexWeights,a=r.length,o=p.mallocFloat32(6*a),s=0,l=0;l<a;++l)for(var c=r[l],u=0;u<2;++u){var f=c[0];2===c.length&&(f=c[u]);for(var d=n[f][0],g=n[f][1],v=i[f],m=1-v,y=this.positions[d],x=this.positions[g],b=0;b<3;++b)o[s++]=v*y[b]+m*x[b]}this.contourCount=s/3|0,this.contourPositions.update(o.subarray(0,s)),p.free(o)}else this.contourCount=0},T.update=function(t){t=t||{};var e=this.gl;this.dirty=!0,\\\"contourEnable\\\"in t&&(this.contourEnable=t.contourEnable),\\\"contourColor\\\"in t&&(this.contourColor=t.contourColor),\\\"lineWidth\\\"in t&&(this.lineWidth=t.lineWidth),\\\"lightPosition\\\"in t&&(this.lightPosition=t.lightPosition),this.hasAlpha=!1,\\\"opacity\\\"in t&&(this.opacity=t.opacity,this.opacity<1&&(this.hasAlpha=!0)),\\\"opacityscale\\\"in t&&(this.opacityscale=t.opacityscale,this.hasAlpha=!0),\\\"ambient\\\"in t&&(this.ambientLight=t.ambient),\\\"diffuse\\\"in t&&(this.diffuseLight=t.diffuse),\\\"specular\\\"in t&&(this.specularLight=t.specular),\\\"roughness\\\"in t&&(this.roughness=t.roughness),\\\"fresnel\\\"in t&&(this.fresnel=t.fresnel),t.texture?(this.texture.dispose(),this.texture=o(e,t.texture)):t.colormap&&(this.texture.shape=[256,256],this.texture.minFilter=e.LINEAR_MIPMAP_LINEAR,this.texture.magFilter=e.LINEAR,this.texture.setPixels(function(t,e){for(var r=f({colormap:t,nshades:256,format:\\\"rgba\\\"}),n=new Uint8Array(1024),i=0;i<256;++i){for(var a=r[i],o=0;o<3;++o)n[4*i+o]=a[o];n[4*i+3]=e?255*A(i/255,e):255*a[3]}return u(n,[256,256,4],[4,0,1])}(t.colormap,this.opacityscale)),this.texture.generateMipmap());var r=t.cells,n=t.positions;if(n&&r){var i=[],a=[],l=[],c=[],h=[],p=[],d=[],g=[],v=[],m=[],y=[],x=[],b=[],_=[];this.cells=r,this.positions=n;var w=t.vertexNormals,k=t.cellNormals,T=void 0===t.vertexNormalsEpsilon?1e-6:t.vertexNormalsEpsilon,M=void 0===t.faceNormalsEpsilon?1e-6:t.faceNormalsEpsilon;t.useFacetNormals&&!k&&(k=s.faceNormals(r,n,M)),k||w||(w=s.vertexNormals(r,n,T));var S=t.vertexColors,E=t.cellColors,C=t.meshColor||[1,1,1,1],L=t.vertexUVs,z=t.vertexIntensity,O=t.cellUVs,I=t.cellIntensity,D=1/0,P=-1/0;if(!L&&!O)if(z)if(t.vertexIntensityBounds)D=+t.vertexIntensityBounds[0],P=+t.vertexIntensityBounds[1];else for(var R=0;R<z.length;++R){var F=z[R];D=Math.min(D,F),P=Math.max(P,F)}else if(I)for(R=0;R<I.length;++R){F=I[R];D=Math.min(D,F),P=Math.max(P,F)}else for(R=0;R<n.length;++R){F=n[R][2];D=Math.min(D,F),P=Math.max(P,F)}this.intensity=z||(I?function(t,e,r){for(var n=new Array(e),i=0;i<e;++i)n[i]=0;var a=t.length;for(i=0;i<a;++i)for(var o=t[i],s=0;s<o.length;++s)n[o[s]]=r[i];return n}(r,n.length,I):function(t){for(var e=t.length,r=new Array(e),n=0;n<e;++n)r[n]=t[n][2];return r}(n));var B=t.pointSizes,N=t.pointSize||1;this.bounds=[[1/0,1/0,1/0],[-1/0,-1/0,-1/0]];for(R=0;R<n.length;++R)for(var j=n[R],V=0;V<3;++V)!isNaN(j[V])&&isFinite(j[V])&&(this.bounds[0][V]=Math.min(this.bounds[0][V],j[V]),this.bounds[1][V]=Math.max(this.bounds[1][V],j[V]));var U=0,H=0,q=0;t:for(R=0;R<r.length;++R){var G=r[R];switch(G.length){case 1:for(j=n[W=G[0]],V=0;V<3;++V)if(isNaN(j[V])||!isFinite(j[V]))continue t;m.push(j[0],j[1],j[2]),X=S?S[W]:E?E[R]:C,this.opacityscale&&z?a.push(X[0],X[1],X[2],this.opacity*A((z[W]-D)/(P-D),this.opacityscale)):3===X.length?y.push(X[0],X[1],X[2],this.opacity):(y.push(X[0],X[1],X[2],X[3]*this.opacity),!this.hasAlpha&&X[3]<1&&(this.hasAlpha=!0)),Z=L?L[W]:z?[(z[W]-D)/(P-D),0]:O?O[R]:I?[(I[R]-D)/(P-D),0]:[(j[2]-D)/(P-D),0],x.push(Z[0],Z[1]),B?b.push(B[W]):b.push(N),_.push(R),q+=1;break;case 2:for(V=0;V<2;++V){j=n[W=G[V]];for(var Y=0;Y<3;++Y)if(isNaN(j[Y])||!isFinite(j[Y]))continue t}for(V=0;V<2;++V){j=n[W=G[V]];p.push(j[0],j[1],j[2]),X=S?S[W]:E?E[R]:C,this.opacityscale&&z?a.push(X[0],X[1],X[2],this.opacity*A((z[W]-D)/(P-D),this.opacityscale)):3===X.length?d.push(X[0],X[1],X[2],this.opacity):(d.push(X[0],X[1],X[2],X[3]*this.opacity),!this.hasAlpha&&X[3]<1&&(this.hasAlpha=!0)),Z=L?L[W]:z?[(z[W]-D)/(P-D),0]:O?O[R]:I?[(I[R]-D)/(P-D),0]:[(j[2]-D)/(P-D),0],g.push(Z[0],Z[1]),v.push(R)}H+=1;break;case 3:for(V=0;V<3;++V)for(j=n[W=G[V]],Y=0;Y<3;++Y)if(isNaN(j[Y])||!isFinite(j[Y]))continue t;for(V=0;V<3;++V){var W,X,Z,$;j=n[W=G[2-V]];i.push(j[0],j[1],j[2]),X=S?S[W]:E?E[R]:C,this.opacityscale&&z?a.push(X[0],X[1],X[2],this.opacity*A((z[W]-D)/(P-D),this.opacityscale)):3===X.length?a.push(X[0],X[1],X[2],this.opacity):(a.push(X[0],X[1],X[2],X[3]*this.opacity),!this.hasAlpha&&X[3]<1&&(this.hasAlpha=!0)),Z=L?L[W]:z?[(z[W]-D)/(P-D),0]:O?O[R]:I?[(I[R]-D)/(P-D),0]:[(j[2]-D)/(P-D),0],c.push(Z[0],Z[1]),$=w?w[W]:k[R],l.push($[0],$[1],$[2]),h.push(R)}U+=1}}this.pointCount=q,this.edgeCount=H,this.triangleCount=U,this.pointPositions.update(m),this.pointColors.update(y),this.pointUVs.update(x),this.pointSizes.update(b),this.pointIds.update(new Uint32Array(_)),this.edgePositions.update(p),this.edgeColors.update(d),this.edgeUVs.update(g),this.edgeIds.update(new Uint32Array(v)),this.trianglePositions.update(i),this.triangleColors.update(a),this.triangleUVs.update(c),this.triangleNormals.update(l),this.triangleIds.update(new Uint32Array(h))}},T.drawTransparent=T.draw=function(t){t=t||{};for(var e=this.gl,r=t.model||w,n=t.view||w,i=t.projection||w,a=[[-1e6,-1e6,-1e6],[1e6,1e6,1e6]],o=0;o<3;++o)a[0][o]=Math.max(a[0][o],this.clipBounds[0][o]),a[1][o]=Math.min(a[1][o],this.clipBounds[1][o]);var s={model:r,view:n,projection:i,inverseModel:w.slice(),clipBounds:a,kambient:this.ambientLight,kdiffuse:this.diffuseLight,kspecular:this.specularLight,roughness:this.roughness,fresnel:this.fresnel,eyePosition:[0,0,0],lightPosition:[0,0,0],contourColor:this.contourColor,texture:0};s.inverseModel=c(s.inverseModel,s.model),e.disable(e.CULL_FACE),this.texture.bind(0);var u=new Array(16);l(u,s.view,s.model),l(u,s.projection,u),c(u,u);for(o=0;o<3;++o)s.eyePosition[o]=u[12+o]/u[15];var f,h=u[15];for(o=0;o<3;++o)h+=this.lightPosition[o]*u[4*o+3];for(o=0;o<3;++o){for(var p=u[12+o],d=0;d<3;++d)p+=u[4*d+o]*this.lightPosition[d];s.lightPosition[o]=p/h}this.triangleCount>0&&((f=this.triShader).bind(),f.uniforms=s,this.triangleVAO.bind(),e.drawArrays(e.TRIANGLES,0,3*this.triangleCount),this.triangleVAO.unbind());this.edgeCount>0&&this.lineWidth>0&&((f=this.lineShader).bind(),f.uniforms=s,this.edgeVAO.bind(),e.lineWidth(this.lineWidth*this.pixelRatio),e.drawArrays(e.LINES,0,2*this.edgeCount),this.edgeVAO.unbind());this.pointCount>0&&((f=this.pointShader).bind(),f.uniforms=s,this.pointVAO.bind(),e.drawArrays(e.POINTS,0,this.pointCount),this.pointVAO.unbind());this.contourEnable&&this.contourCount>0&&this.contourLineWidth>0&&((f=this.contourShader).bind(),f.uniforms=s,this.contourVAO.bind(),e.drawArrays(e.LINES,0,this.contourCount),this.contourVAO.unbind())},T.drawPick=function(t){t=t||{};for(var e=this.gl,r=t.model||w,n=t.view||w,i=t.projection||w,a=[[-1e6,-1e6,-1e6],[1e6,1e6,1e6]],o=0;o<3;++o)a[0][o]=Math.max(a[0][o],this.clipBounds[0][o]),a[1][o]=Math.min(a[1][o],this.clipBounds[1][o]);this._model=[].slice.call(r),this._view=[].slice.call(n),this._projection=[].slice.call(i),this._resolution=[e.drawingBufferWidth,e.drawingBufferHeight];var s,l={model:r,view:n,projection:i,clipBounds:a,pickId:this.pickId/255};((s=this.pickShader).bind(),s.uniforms=l,this.triangleCount>0&&(this.triangleVAO.bind(),e.drawArrays(e.TRIANGLES,0,3*this.triangleCount),this.triangleVAO.unbind()),this.edgeCount>0&&(this.edgeVAO.bind(),e.lineWidth(this.lineWidth*this.pixelRatio),e.drawArrays(e.LINES,0,2*this.edgeCount),this.edgeVAO.unbind()),this.pointCount>0)&&((s=this.pointPickShader).bind(),s.uniforms=l,this.pointVAO.bind(),e.drawArrays(e.POINTS,0,this.pointCount),this.pointVAO.unbind())},T.pick=function(t){if(!t)return null;if(t.id!==this.pickId)return null;for(var e=t.value[0]+256*t.value[1]+65536*t.value[2],r=this.cells[e],n=this.positions,i=new Array(r.length),a=0;a<r.length;++a)i[a]=n[r[a]];var o=g(i,[t.coord[0],this._resolution[1]-t.coord[1]],this._model,this._view,this._projection,this._resolution);if(!o)return null;var s=o[2],l=0;for(a=0;a<r.length;++a)l+=s[a]*this.intensity[r[a]];return{position:o[1],index:r[o[0]],cell:r,cellId:e,intensity:l,dataCoordinate:this.positions[r[o[0]]]}},T.dispose=function(){this.texture.dispose(),this.triShader.dispose(),this.lineShader.dispose(),this.pointShader.dispose(),this.pickShader.dispose(),this.pointPickShader.dispose(),this.triangleVAO.dispose(),this.trianglePositions.dispose(),this.triangleColors.dispose(),this.triangleUVs.dispose(),this.triangleNormals.dispose(),this.triangleIds.dispose(),this.edgeVAO.dispose(),this.edgePositions.dispose(),this.edgeColors.dispose(),this.edgeUVs.dispose(),this.edgeIds.dispose(),this.pointVAO.dispose(),this.pointPositions.dispose(),this.pointColors.dispose(),this.pointUVs.dispose(),this.pointSizes.dispose(),this.pointIds.dispose(),this.contourVAO.dispose(),this.contourPositions.dispose(),this.contourShader.dispose()},e.exports=function(t,e){if(1===arguments.length&&(t=(e=t).gl),!(t.getExtension(\\\"OES_standard_derivatives\\\")||t.getExtension(\\\"MOZ_OES_standard_derivatives\\\")||t.getExtension(\\\"WEBKIT_OES_standard_derivatives\\\")))throw new Error(\\\"derivatives not supported\\\");var r=function(t){var e=n(t,v.vertex,v.fragment);return e.attributes.position.location=0,e.attributes.color.location=2,e.attributes.uv.location=3,e.attributes.normal.location=4,e}(t),s=function(t){var e=n(t,m.vertex,m.fragment);return e.attributes.position.location=0,e.attributes.color.location=2,e.attributes.uv.location=3,e}(t),l=M(t),c=S(t),f=E(t),h=C(t),p=o(t,u(new Uint8Array([255,255,255,255]),[1,1,4]));p.generateMipmap(),p.minFilter=t.LINEAR_MIPMAP_LINEAR,p.magFilter=t.LINEAR;var d=i(t),g=i(t),y=i(t),x=i(t),b=i(t),_=a(t,[{buffer:d,type:t.FLOAT,size:3},{buffer:b,type:t.UNSIGNED_BYTE,size:4,normalized:!0},{buffer:g,type:t.FLOAT,size:4},{buffer:y,type:t.FLOAT,size:2},{buffer:x,type:t.FLOAT,size:3}]),w=i(t),T=i(t),A=i(t),L=i(t),z=a(t,[{buffer:w,type:t.FLOAT,size:3},{buffer:L,type:t.UNSIGNED_BYTE,size:4,normalized:!0},{buffer:T,type:t.FLOAT,size:4},{buffer:A,type:t.FLOAT,size:2}]),O=i(t),I=i(t),D=i(t),P=i(t),R=i(t),F=a(t,[{buffer:O,type:t.FLOAT,size:3},{buffer:R,type:t.UNSIGNED_BYTE,size:4,normalized:!0},{buffer:I,type:t.FLOAT,size:4},{buffer:D,type:t.FLOAT,size:2},{buffer:P,type:t.FLOAT,size:1}]),B=i(t),N=new k(t,p,r,s,l,c,f,h,d,b,g,y,x,_,w,L,T,A,z,O,R,I,D,P,F,B,a(t,[{buffer:B,type:t.FLOAT,size:3}]));return N.update(e),N}},{\\\"./lib/closest-point\\\":277,\\\"./lib/shaders\\\":278,colormap:119,\\\"gl-buffer\\\":240,\\\"gl-mat4/invert\\\":264,\\\"gl-mat4/multiply\\\":266,\\\"gl-shader\\\":300,\\\"gl-texture2d\\\":317,\\\"gl-vao\\\":322,ndarray:445,normals:448,\\\"simplicial-complex-contour\\\":505,\\\"typedarray-pool\\\":532}],280:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=t.gl,r=n(e,[0,0,0,1,1,0,1,1]),s=i(e,a.boxVert,a.lineFrag);return new o(t,r,s)};var n=t(\\\"gl-buffer\\\"),i=t(\\\"gl-shader\\\"),a=t(\\\"./shaders\\\");function o(t,e,r){this.plot=t,this.vbo=e,this.shader=r}var s,l,c=o.prototype;c.bind=function(){var t=this.shader;this.vbo.bind(),this.shader.bind(),t.attributes.coord.pointer(),t.uniforms.screenBox=this.plot.screenBox},c.drawBox=(s=[0,0],l=[0,0],function(t,e,r,n,i){var a=this.plot,o=this.shader,c=a.gl;s[0]=t,s[1]=e,l[0]=r,l[1]=n,o.uniforms.lo=s,o.uniforms.hi=l,o.uniforms.color=i,c.drawArrays(c.TRIANGLE_STRIP,0,4)}),c.dispose=function(){this.vbo.dispose(),this.shader.dispose()}},{\\\"./shaders\\\":283,\\\"gl-buffer\\\":240,\\\"gl-shader\\\":300}],281:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=t.gl,r=n(e),a=i(e,o.gridVert,o.gridFrag),l=i(e,o.tickVert,o.gridFrag);return new s(t,r,a,l)};var n=t(\\\"gl-buffer\\\"),i=t(\\\"gl-shader\\\"),a=t(\\\"binary-search-bounds\\\"),o=t(\\\"./shaders\\\");function s(t,e,r,n){this.plot=t,this.vbo=e,this.shader=r,this.tickShader=n,this.ticks=[[],[]]}function l(t,e){return t-e}var c,u,f,h,p,d=s.prototype;d.draw=(c=[0,0],u=[0,0],f=[0,0],function(){for(var t=this.plot,e=this.vbo,r=this.shader,n=this.ticks,i=t.gl,a=t._tickBounds,o=t.dataBox,s=t.viewBox,l=t.gridLineWidth,h=t.gridLineColor,p=t.gridLineEnable,d=t.pixelRatio,g=0;g<2;++g){var v=a[g],m=a[g+2]-v,y=.5*(o[g+2]+o[g]),x=o[g+2]-o[g];u[g]=2*m/x,c[g]=2*(v-y)/x}r.bind(),e.bind(),r.attributes.dataCoord.pointer(),r.uniforms.dataShift=c,r.uniforms.dataScale=u;var b=0;for(g=0;g<2;++g){f[0]=f[1]=0,f[g]=1,r.uniforms.dataAxis=f,r.uniforms.lineWidth=l[g]/(s[g+2]-s[g])*d,r.uniforms.color=h[g];var _=6*n[g].length;p[g]&&_&&i.drawArrays(i.TRIANGLES,b,_),b+=_}}),d.drawTickMarks=function(){var t=[0,0],e=[0,0],r=[1,0],n=[0,1],i=[0,0],o=[0,0];return function(){for(var s=this.plot,c=this.vbo,u=this.tickShader,f=this.ticks,h=s.gl,p=s._tickBounds,d=s.dataBox,g=s.viewBox,v=s.pixelRatio,m=s.screenBox,y=m[2]-m[0],x=m[3]-m[1],b=g[2]-g[0],_=g[3]-g[1],w=0;w<2;++w){var k=p[w],T=p[w+2]-k,A=.5*(d[w+2]+d[w]),M=d[w+2]-d[w];e[w]=2*T/M,t[w]=2*(k-A)/M}e[0]*=b/y,t[0]*=b/y,e[1]*=_/x,t[1]*=_/x,u.bind(),c.bind(),u.attributes.dataCoord.pointer();var S=u.uniforms;S.dataShift=t,S.dataScale=e;var E=s.tickMarkLength,C=s.tickMarkWidth,L=s.tickMarkColor,z=6*f[0].length,O=Math.min(a.ge(f[0],(d[0]-p[0])/(p[2]-p[0]),l),f[0].length),I=Math.min(a.gt(f[0],(d[2]-p[0])/(p[2]-p[0]),l),f[0].length),D=0+6*O,P=6*Math.max(0,I-O),R=Math.min(a.ge(f[1],(d[1]-p[1])/(p[3]-p[1]),l),f[1].length),F=Math.min(a.gt(f[1],(d[3]-p[1])/(p[3]-p[1]),l),f[1].length),B=z+6*R,N=6*Math.max(0,F-R);i[0]=2*(g[0]-E[1])/y-1,i[1]=(g[3]+g[1])/x-1,o[0]=E[1]*v/y,o[1]=C[1]*v/x,N&&(S.color=L[1],S.tickScale=o,S.dataAxis=n,S.screenOffset=i,h.drawArrays(h.TRIANGLES,B,N)),i[0]=(g[2]+g[0])/y-1,i[1]=2*(g[1]-E[0])/x-1,o[0]=C[0]*v/y,o[1]=E[0]*v/x,P&&(S.color=L[0],S.tickScale=o,S.dataAxis=r,S.screenOffset=i,h.drawArrays(h.TRIANGLES,D,P)),i[0]=2*(g[2]+E[3])/y-1,i[1]=(g[3]+g[1])/x-1,o[0]=E[3]*v/y,o[1]=C[3]*v/x,N&&(S.color=L[3],S.tickScale=o,S.dataAxis=n,S.screenOffset=i,h.drawArrays(h.TRIANGLES,B,N)),i[0]=(g[2]+g[0])/y-1,i[1]=2*(g[3]+E[2])/x-1,o[0]=C[2]*v/y,o[1]=E[2]*v/x,P&&(S.color=L[2],S.tickScale=o,S.dataAxis=r,S.screenOffset=i,h.drawArrays(h.TRIANGLES,D,P))}}(),d.update=(h=[1,1,-1,-1,1,-1],p=[1,-1,1,1,-1,-1],function(t){for(var e=t.ticks,r=t.bounds,n=new Float32Array(18*(e[0].length+e[1].length)),i=(this.plot.zeroLineEnable,0),a=[[],[]],o=0;o<2;++o)for(var s=a[o],l=e[o],c=r[o],u=r[o+2],f=0;f<l.length;++f){var d=(l[f].x-c)/(u-c);s.push(d);for(var g=0;g<6;++g)n[i++]=d,n[i++]=h[g],n[i++]=p[g]}this.ticks=a,this.vbo.update(n)}),d.dispose=function(){this.vbo.dispose(),this.shader.dispose(),this.tickShader.dispose()}},{\\\"./shaders\\\":283,\\\"binary-search-bounds\\\":285,\\\"gl-buffer\\\":240,\\\"gl-shader\\\":300}],282:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=t.gl,r=n(e,[-1,-1,-1,1,1,-1,1,1]),s=i(e,a.lineVert,a.lineFrag);return new o(t,r,s)};var n=t(\\\"gl-buffer\\\"),i=t(\\\"gl-shader\\\"),a=t(\\\"./shaders\\\");function o(t,e,r){this.plot=t,this.vbo=e,this.shader=r}var s,l,c=o.prototype;c.bind=function(){var t=this.shader;this.vbo.bind(),this.shader.bind(),t.attributes.coord.pointer(),t.uniforms.screenBox=this.plot.screenBox},c.drawLine=(s=[0,0],l=[0,0],function(t,e,r,n,i,a){var o=this.plot,c=this.shader,u=o.gl;s[0]=t,s[1]=e,l[0]=r,l[1]=n,c.uniforms.start=s,c.uniforms.end=l,c.uniforms.width=i*o.pixelRatio,c.uniforms.color=a,u.drawArrays(u.TRIANGLE_STRIP,0,4)}),c.dispose=function(){this.vbo.dispose(),this.shader.dispose()}},{\\\"./shaders\\\":283,\\\"gl-buffer\\\":240,\\\"gl-shader\\\":300}],283:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"glslify\\\"),i=n([\\\"precision lowp float;\\\\n#define GLSLIFY 1\\\\nuniform vec4 color;\\\\nvoid main() {\\\\n  gl_FragColor = vec4(color.xyz * color.w, color.w);\\\\n}\\\\n\\\"]);e.exports={lineVert:n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec2 coord;\\\\n\\\\nuniform vec4 screenBox;\\\\nuniform vec2 start, end;\\\\nuniform float width;\\\\n\\\\nvec2 perp(vec2 v) {\\\\n  return vec2(v.y, -v.x);\\\\n}\\\\n\\\\nvec2 screen(vec2 v) {\\\\n  return 2.0 * (v - screenBox.xy) / (screenBox.zw - screenBox.xy) - 1.0;\\\\n}\\\\n\\\\nvoid main() {\\\\n  vec2 delta = normalize(perp(start - end));\\\\n  vec2 offset = mix(start, end, 0.5 * (coord.y+1.0));\\\\n  gl_Position = vec4(screen(offset + 0.5 * width * delta * coord.x), 0, 1);\\\\n}\\\\n\\\"]),lineFrag:i,textVert:n([\\\"#define GLSLIFY 1\\\\nattribute vec3 textCoordinate;\\\\n\\\\nuniform vec2 dataScale, dataShift, dataAxis, screenOffset, textScale;\\\\nuniform float angle;\\\\n\\\\nvoid main() {\\\\n  float dataOffset  = textCoordinate.z;\\\\n  vec2 glyphOffset  = textCoordinate.xy;\\\\n  mat2 glyphMatrix = mat2(cos(angle), sin(angle), -sin(angle), cos(angle));\\\\n  vec2 screenCoordinate = dataAxis * (dataScale * dataOffset + dataShift) +\\\\n    glyphMatrix * glyphOffset * textScale + screenOffset;\\\\n  gl_Position = vec4(screenCoordinate, 0, 1);\\\\n}\\\\n\\\"]),textFrag:i,gridVert:n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec3 dataCoord;\\\\n\\\\nuniform vec2 dataAxis, dataShift, dataScale;\\\\nuniform float lineWidth;\\\\n\\\\nvoid main() {\\\\n  vec2 pos = dataAxis * (dataScale * dataCoord.x + dataShift);\\\\n  pos += 10.0 * dataCoord.y * vec2(dataAxis.y, -dataAxis.x) + dataCoord.z * lineWidth;\\\\n  gl_Position = vec4(pos, 0, 1);\\\\n}\\\\n\\\"]),gridFrag:i,boxVert:n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec2 coord;\\\\n\\\\nuniform vec4 screenBox;\\\\nuniform vec2 lo, hi;\\\\n\\\\nvec2 screen(vec2 v) {\\\\n  return 2.0 * (v - screenBox.xy) / (screenBox.zw - screenBox.xy) - 1.0;\\\\n}\\\\n\\\\nvoid main() {\\\\n  gl_Position = vec4(screen(mix(lo, hi, coord)), 0, 1);\\\\n}\\\\n\\\"]),tickVert:n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec3 dataCoord;\\\\n\\\\nuniform vec2 dataAxis, dataShift, dataScale, screenOffset, tickScale;\\\\n\\\\nvoid main() {\\\\n  vec2 pos = dataAxis * (dataScale * dataCoord.x + dataShift);\\\\n  gl_Position = vec4(pos + tickScale*dataCoord.yz + screenOffset, 0, 1);\\\\n}\\\\n\\\"])}},{glslify:404}],284:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=t.gl,r=n(e),a=i(e,s.textVert,s.textFrag);return new l(t,r,a)};var n=t(\\\"gl-buffer\\\"),i=t(\\\"gl-shader\\\"),a=t(\\\"text-cache\\\"),o=t(\\\"binary-search-bounds\\\"),s=t(\\\"./shaders\\\");function l(t,e,r){this.plot=t,this.vbo=e,this.shader=r,this.tickOffset=[[],[]],this.tickX=[[],[]],this.labelOffset=[0,0],this.labelCount=[0,0]}var c,u,f,h,p,d,g=l.prototype;g.drawTicks=(c=[0,0],u=[0,0],f=[0,0],function(t){var e=this.plot,r=this.shader,n=this.tickX[t],i=this.tickOffset[t],a=e.gl,s=e.viewBox,l=e.dataBox,h=e.screenBox,p=e.pixelRatio,d=e.tickEnable,g=e.tickPad,v=e.tickColor,m=e.tickAngle,y=e.labelEnable,x=e.labelPad,b=e.labelColor,_=e.labelAngle,w=this.labelOffset[t],k=this.labelCount[t],T=o.lt(n,l[t]),A=o.le(n,l[t+2]);c[0]=c[1]=0,c[t]=1,u[t]=(s[2+t]+s[t])/(h[2+t]-h[t])-1;var M=2/h[2+(1^t)]-h[1^t];u[1^t]=M*s[1^t]-1,d[t]&&(u[1^t]-=M*p*g[t],T<A&&i[A]>i[T]&&(r.uniforms.dataAxis=c,r.uniforms.screenOffset=u,r.uniforms.color=v[t],r.uniforms.angle=m[t],a.drawArrays(a.TRIANGLES,i[T],i[A]-i[T]))),y[t]&&k&&(u[1^t]-=M*p*x[t],r.uniforms.dataAxis=f,r.uniforms.screenOffset=u,r.uniforms.color=b[t],r.uniforms.angle=_[t],a.drawArrays(a.TRIANGLES,w,k)),u[1^t]=M*s[2+(1^t)]-1,d[t+2]&&(u[1^t]+=M*p*g[t+2],T<A&&i[A]>i[T]&&(r.uniforms.dataAxis=c,r.uniforms.screenOffset=u,r.uniforms.color=v[t+2],r.uniforms.angle=m[t+2],a.drawArrays(a.TRIANGLES,i[T],i[A]-i[T]))),y[t+2]&&k&&(u[1^t]+=M*p*x[t+2],r.uniforms.dataAxis=f,r.uniforms.screenOffset=u,r.uniforms.color=b[t+2],r.uniforms.angle=_[t+2],a.drawArrays(a.TRIANGLES,w,k))}),g.drawTitle=function(){var t=[0,0],e=[0,0];return function(){var r=this.plot,n=this.shader,i=r.gl,a=r.screenBox,o=r.titleCenter,s=r.titleAngle,l=r.titleColor,c=r.pixelRatio;if(this.titleCount){for(var u=0;u<2;++u)e[u]=2*(o[u]*c-a[u])/(a[2+u]-a[u])-1;n.bind(),n.uniforms.dataAxis=t,n.uniforms.screenOffset=e,n.uniforms.angle=s,n.uniforms.color=l,i.drawArrays(i.TRIANGLES,this.titleOffset,this.titleCount)}}}(),g.bind=(h=[0,0],p=[0,0],d=[0,0],function(){var t=this.plot,e=this.shader,r=t._tickBounds,n=t.dataBox,i=t.screenBox,a=t.viewBox;e.bind();for(var o=0;o<2;++o){var s=r[o],l=r[o+2]-s,c=.5*(n[o+2]+n[o]),u=n[o+2]-n[o],f=a[o],g=a[o+2]-f,v=i[o],m=i[o+2]-v;p[o]=2*l/u*g/m,h[o]=2*(s-c)/u*g/m}d[1]=2*t.pixelRatio/(i[3]-i[1]),d[0]=d[1]*(i[3]-i[1])/(i[2]-i[0]),e.uniforms.dataScale=p,e.uniforms.dataShift=h,e.uniforms.textScale=d,this.vbo.bind(),e.attributes.textCoordinate.pointer()}),g.update=function(t){var e,r,n,i,o,s=[],l=t.ticks,c=t.bounds;for(o=0;o<2;++o){var u=[Math.floor(s.length/3)],f=[-1/0],h=l[o];for(e=0;e<h.length;++e){var p=h[e],d=p.x,g=p.text,v=p.font||\\\"sans-serif\\\";i=p.fontSize||12;for(var m=1/(c[o+2]-c[o]),y=c[o],x=g.split(\\\"\\\\n\\\"),b=0;b<x.length;b++)for(n=a(v,x[b]).data,r=0;r<n.length;r+=2)s.push(n[r]*i,-n[r+1]*i-b*i*1.2,(d-y)*m);u.push(Math.floor(s.length/3)),f.push(d)}this.tickOffset[o]=u,this.tickX[o]=f}for(o=0;o<2;++o){for(this.labelOffset[o]=Math.floor(s.length/3),n=a(t.labelFont[o],t.labels[o],{textAlign:\\\"center\\\"}).data,i=t.labelSize[o],e=0;e<n.length;e+=2)s.push(n[e]*i,-n[e+1]*i,0);this.labelCount[o]=Math.floor(s.length/3)-this.labelOffset[o]}for(this.titleOffset=Math.floor(s.length/3),n=a(t.titleFont,t.title).data,i=t.titleSize,e=0;e<n.length;e+=2)s.push(n[e]*i,-n[e+1]*i,0);this.titleCount=Math.floor(s.length/3)-this.titleOffset,this.vbo.update(s)},g.dispose=function(){this.vbo.dispose(),this.shader.dispose()}},{\\\"./shaders\\\":283,\\\"binary-search-bounds\\\":285,\\\"gl-buffer\\\":240,\\\"gl-shader\\\":300,\\\"text-cache\\\":523}],285:[function(t,e,r){arguments[4][104][0].apply(r,arguments)},{dup:104}],286:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=t.gl,r=n(e,[e.drawingBufferWidth,e.drawingBufferHeight]),c=new l(e,r);return c.grid=i(c),c.text=a(c),c.line=o(c),c.box=s(c),c.update(t),c};var n=t(\\\"gl-select-static\\\"),i=t(\\\"./lib/grid\\\"),a=t(\\\"./lib/text\\\"),o=t(\\\"./lib/line\\\"),s=t(\\\"./lib/box\\\");function l(t,e){this.gl=t,this.pickBuffer=e,this.screenBox=[0,0,t.drawingBufferWidth,t.drawingBufferHeight],this.viewBox=[0,0,0,0],this.dataBox=[-10,-10,10,10],this.gridLineEnable=[!0,!0],this.gridLineWidth=[1,1],this.gridLineColor=[[0,0,0,1],[0,0,0,1]],this.pixelRatio=1,this.tickMarkLength=[0,0,0,0],this.tickMarkWidth=[0,0,0,0],this.tickMarkColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.tickPad=[15,15,15,15],this.tickAngle=[0,0,0,0],this.tickEnable=[!0,!0,!0,!0],this.tickColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.labelPad=[15,15,15,15],this.labelAngle=[0,Math.PI/2,0,3*Math.PI/2],this.labelEnable=[!0,!0,!0,!0],this.labelColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.titleCenter=[0,0],this.titleEnable=!0,this.titleAngle=0,this.titleColor=[0,0,0,1],this.borderColor=[0,0,0,0],this.backgroundColor=[0,0,0,0],this.zeroLineEnable=[!0,!0],this.zeroLineWidth=[4,4],this.zeroLineColor=[[0,0,0,1],[0,0,0,1]],this.borderLineEnable=[!0,!0,!0,!0],this.borderLineWidth=[2,2,2,2],this.borderLineColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.grid=null,this.text=null,this.line=null,this.box=null,this.objects=[],this.overlays=[],this._tickBounds=[1/0,1/0,-1/0,-1/0],this.static=!1,this.dirty=!1,this.pickDirty=!1,this.pickDelay=120,this.pickRadius=10,this._pickTimeout=null,this._drawPick=this.drawPick.bind(this),this._depthCounter=0}var c=l.prototype;function u(t){for(var e=t.slice(),r=0;r<e.length;++r)e[r]=e[r].slice();return e}function f(t,e){return t.x-e.x}c.setDirty=function(){this.dirty=this.pickDirty=!0},c.setOverlayDirty=function(){this.dirty=!0},c.nextDepthValue=function(){return this._depthCounter++/65536},c.draw=function(){var t=this.gl,e=this.screenBox,r=this.viewBox,n=this.dataBox,i=this.pixelRatio,a=this.grid,o=this.line,s=this.text,l=this.objects;if(this._depthCounter=0,this.pickDirty&&(this._pickTimeout&&clearTimeout(this._pickTimeout),this.pickDirty=!1,this._pickTimeout=setTimeout(this._drawPick,this.pickDelay)),this.dirty){if(this.dirty=!1,t.bindFramebuffer(t.FRAMEBUFFER,null),t.enable(t.SCISSOR_TEST),t.disable(t.DEPTH_TEST),t.depthFunc(t.LESS),t.depthMask(!1),t.enable(t.BLEND),t.blendEquation(t.FUNC_ADD,t.FUNC_ADD),t.blendFunc(t.ONE,t.ONE_MINUS_SRC_ALPHA),this.borderColor){t.scissor(e[0],e[1],e[2]-e[0],e[3]-e[1]);var c=this.borderColor;t.clearColor(c[0]*c[3],c[1]*c[3],c[2]*c[3],c[3]),t.clear(t.COLOR_BUFFER_BIT|t.DEPTH_BUFFER_BIT)}t.scissor(r[0],r[1],r[2]-r[0],r[3]-r[1]),t.viewport(r[0],r[1],r[2]-r[0],r[3]-r[1]);var u=this.backgroundColor;t.clearColor(u[0]*u[3],u[1]*u[3],u[2]*u[3],u[3]),t.clear(t.COLOR_BUFFER_BIT),a.draw();var f=this.zeroLineEnable,h=this.zeroLineColor,p=this.zeroLineWidth;if(f[0]||f[1]){o.bind();for(var d=0;d<2;++d)if(f[d]&&n[d]<=0&&n[d+2]>=0){var g=e[d]-n[d]*(e[d+2]-e[d])/(n[d+2]-n[d]);0===d?o.drawLine(g,e[1],g,e[3],p[d],h[d]):o.drawLine(e[0],g,e[2],g,p[d],h[d])}}for(d=0;d<l.length;++d)l[d].draw();t.viewport(e[0],e[1],e[2]-e[0],e[3]-e[1]),t.scissor(e[0],e[1],e[2]-e[0],e[3]-e[1]),this.grid.drawTickMarks(),o.bind();var v=this.borderLineEnable,m=this.borderLineWidth,y=this.borderLineColor;for(v[1]&&o.drawLine(r[0],r[1]-.5*m[1]*i,r[0],r[3]+.5*m[3]*i,m[1],y[1]),v[0]&&o.drawLine(r[0]-.5*m[0]*i,r[1],r[2]+.5*m[2]*i,r[1],m[0],y[0]),v[3]&&o.drawLine(r[2],r[1]-.5*m[1]*i,r[2],r[3]+.5*m[3]*i,m[3],y[3]),v[2]&&o.drawLine(r[0]-.5*m[0]*i,r[3],r[2]+.5*m[2]*i,r[3],m[2],y[2]),s.bind(),d=0;d<2;++d)s.drawTicks(d);this.titleEnable&&s.drawTitle();var x=this.overlays;for(d=0;d<x.length;++d)x[d].draw();t.disable(t.SCISSOR_TEST),t.disable(t.BLEND),t.depthMask(!0)}},c.drawPick=function(){if(!this.static){var t=this.pickBuffer;this.gl;this._pickTimeout=null,t.begin();for(var e=1,r=this.objects,n=0;n<r.length;++n)e=r[n].drawPick(e);t.end()}},c.pick=function(t,e){if(!this.static){var r=this.pixelRatio,n=this.pickPixelRatio,i=this.viewBox,a=0|Math.round((t-i[0]/r)*n),o=0|Math.round((e-i[1]/r)*n),s=this.pickBuffer.query(a,o,this.pickRadius);if(!s)return null;for(var l=s.id+(s.value[0]<<8)+(s.value[1]<<16)+(s.value[2]<<24),c=this.objects,u=0;u<c.length;++u){var f=c[u].pick(a,o,l);if(f)return f}return null}},c.setScreenBox=function(t){var e=this.screenBox,r=this.pixelRatio;e[0]=0|Math.round(t[0]*r),e[1]=0|Math.round(t[1]*r),e[2]=0|Math.round(t[2]*r),e[3]=0|Math.round(t[3]*r),this.setDirty()},c.setDataBox=function(t){var e=this.dataBox;(e[0]!==t[0]||e[1]!==t[1]||e[2]!==t[2]||e[3]!==t[3])&&(e[0]=t[0],e[1]=t[1],e[2]=t[2],e[3]=t[3],this.setDirty())},c.setViewBox=function(t){var e=this.pixelRatio,r=this.viewBox;r[0]=0|Math.round(t[0]*e),r[1]=0|Math.round(t[1]*e),r[2]=0|Math.round(t[2]*e),r[3]=0|Math.round(t[3]*e);var n=this.pickPixelRatio;this.pickBuffer.shape=[0|Math.round((t[2]-t[0])*n),0|Math.round((t[3]-t[1])*n)],this.setDirty()},c.update=function(t){t=t||{};var e=this.gl;this.pixelRatio=t.pixelRatio||1;var r=this.pixelRatio;this.pickPixelRatio=Math.max(r,1),this.setScreenBox(t.screenBox||[0,0,e.drawingBufferWidth/r,e.drawingBufferHeight/r]);this.screenBox;this.setViewBox(t.viewBox||[.125*(this.screenBox[2]-this.screenBox[0])/r,.125*(this.screenBox[3]-this.screenBox[1])/r,.875*(this.screenBox[2]-this.screenBox[0])/r,.875*(this.screenBox[3]-this.screenBox[1])/r]);var n=this.viewBox,i=(n[2]-n[0])/(n[3]-n[1]);this.setDataBox(t.dataBox||[-10,-10/i,10,10/i]),this.borderColor=!1!==t.borderColor&&(t.borderColor||[0,0,0,0]).slice(),this.backgroundColor=(t.backgroundColor||[0,0,0,0]).slice(),this.gridLineEnable=(t.gridLineEnable||[!0,!0]).slice(),this.gridLineWidth=(t.gridLineWidth||[1,1]).slice(),this.gridLineColor=u(t.gridLineColor||[[.5,.5,.5,1],[.5,.5,.5,1]]),this.zeroLineEnable=(t.zeroLineEnable||[!0,!0]).slice(),this.zeroLineWidth=(t.zeroLineWidth||[4,4]).slice(),this.zeroLineColor=u(t.zeroLineColor||[[0,0,0,1],[0,0,0,1]]),this.tickMarkLength=(t.tickMarkLength||[0,0,0,0]).slice(),this.tickMarkWidth=(t.tickMarkWidth||[0,0,0,0]).slice(),this.tickMarkColor=u(t.tickMarkColor||[[0,0,0,1],[0,0,0,1],[0,0,0,1],[0,0,0,1]]),this.titleCenter=(t.titleCenter||[.5*(n[0]+n[2])/r,(n[3]+120)/r]).slice(),this.titleEnable=!(\\\"titleEnable\\\"in t&&!t.titleEnable),this.titleAngle=t.titleAngle||0,this.titleColor=(t.titleColor||[0,0,0,1]).slice(),this.labelPad=(t.labelPad||[15,15,15,15]).slice(),this.labelAngle=(t.labelAngle||[0,Math.PI/2,0,3*Math.PI/2]).slice(),this.labelEnable=(t.labelEnable||[!0,!0,!0,!0]).slice(),this.labelColor=u(t.labelColor||[[0,0,0,1],[0,0,0,1],[0,0,0,1],[0,0,0,1]]),this.tickPad=(t.tickPad||[15,15,15,15]).slice(),this.tickAngle=(t.tickAngle||[0,0,0,0]).slice(),this.tickEnable=(t.tickEnable||[!0,!0,!0,!0]).slice(),this.tickColor=u(t.tickColor||[[0,0,0,1],[0,0,0,1],[0,0,0,1],[0,0,0,1]]),this.borderLineEnable=(t.borderLineEnable||[!0,!0,!0,!0]).slice(),this.borderLineWidth=(t.borderLineWidth||[2,2,2,2]).slice(),this.borderLineColor=u(t.borderLineColor||[[0,0,0,1],[0,0,0,1],[0,0,0,1],[0,0,0,1]]);var a=t.ticks||[[],[]],o=this._tickBounds;o[0]=o[1]=1/0,o[2]=o[3]=-1/0;for(var s=0;s<2;++s){var l=a[s].slice(0);0!==l.length&&(l.sort(f),o[s]=Math.min(o[s],l[0].x),o[s+2]=Math.max(o[s+2],l[l.length-1].x))}this.grid.update({bounds:o,ticks:a}),this.text.update({bounds:o,ticks:a,labels:t.labels||[\\\"x\\\",\\\"y\\\"],labelSize:t.labelSize||[12,12],labelFont:t.labelFont||[\\\"sans-serif\\\",\\\"sans-serif\\\"],title:t.title||\\\"\\\",titleSize:t.titleSize||18,titleFont:t.titleFont||\\\"sans-serif\\\"}),this.static=!!t.static,this.setDirty()},c.dispose=function(){this.box.dispose(),this.grid.dispose(),this.text.dispose(),this.line.dispose();for(var t=this.objects.length-1;t>=0;--t)this.objects[t].dispose();this.objects.length=0;for(t=this.overlays.length-1;t>=0;--t)this.overlays[t].dispose();this.overlays.length=0,this.gl=null},c.addObject=function(t){this.objects.indexOf(t)<0&&(this.objects.push(t),this.setDirty())},c.removeObject=function(t){for(var e=this.objects,r=0;r<e.length;++r)if(e[r]===t){e.splice(r,1),this.setDirty();break}},c.addOverlay=function(t){this.overlays.indexOf(t)<0&&(this.overlays.push(t),this.setOverlayDirty())},c.removeOverlay=function(t){for(var e=this.overlays,r=0;r<e.length;++r)if(e[r]===t){e.splice(r,1),this.setOverlayDirty();break}}},{\\\"./lib/box\\\":280,\\\"./lib/grid\\\":281,\\\"./lib/line\\\":282,\\\"./lib/text\\\":284,\\\"gl-select-static\\\":299}],287:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){t=t||document.body,e=e||{};var r=[.01,1/0];\\\"distanceLimits\\\"in e&&(r[0]=e.distanceLimits[0],r[1]=e.distanceLimits[1]);\\\"zoomMin\\\"in e&&(r[0]=e.zoomMin);\\\"zoomMax\\\"in e&&(r[1]=e.zoomMax);var c=i({center:e.center||[0,0,0],up:e.up||[0,1,0],eye:e.eye||[0,0,10],mode:e.mode||\\\"orbit\\\",distanceLimits:r}),u=[0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0],f=0,h=t.clientWidth,p=t.clientHeight,d={keyBindingMode:\\\"rotate\\\",enableWheel:!0,view:c,element:t,delay:e.delay||16,rotateSpeed:e.rotateSpeed||1,zoomSpeed:e.zoomSpeed||1,translateSpeed:e.translateSpeed||1,flipX:!!e.flipX,flipY:!!e.flipY,modes:c.modes,_ortho:e._ortho||e.projection&&\\\"orthographic\\\"===e.projection.type||!1,tick:function(){var e=n(),r=this.delay,i=e-2*r;c.idle(e-r),c.recalcMatrix(i),c.flush(e-(100+2*r));for(var a=!0,o=c.computedMatrix,s=0;s<16;++s)a=a&&u[s]===o[s],u[s]=o[s];var l=t.clientWidth===h&&t.clientHeight===p;return h=t.clientWidth,p=t.clientHeight,a?!l:(f=Math.exp(c.computedRadius[0]),!0)},lookAt:function(t,e,r){c.lookAt(c.lastT(),t,e,r)},rotate:function(t,e,r){c.rotate(c.lastT(),t,e,r)},pan:function(t,e,r){c.pan(c.lastT(),t,e,r)},translate:function(t,e,r){c.translate(c.lastT(),t,e,r)}};return Object.defineProperties(d,{matrix:{get:function(){return c.computedMatrix},set:function(t){return c.setMatrix(c.lastT(),t),c.computedMatrix},enumerable:!0},mode:{get:function(){return c.getMode()},set:function(t){var e=c.computedUp.slice(),r=c.computedEye.slice(),i=c.computedCenter.slice();if(c.setMode(t),\\\"turntable\\\"===t){var a=n();c._active.lookAt(a,r,i,e),c._active.lookAt(a+500,r,i,[0,0,1]),c._active.flush(a)}return c.getMode()},enumerable:!0},center:{get:function(){return c.computedCenter},set:function(t){return c.lookAt(c.lastT(),null,t),c.computedCenter},enumerable:!0},eye:{get:function(){return c.computedEye},set:function(t){return c.lookAt(c.lastT(),t),c.computedEye},enumerable:!0},up:{get:function(){return c.computedUp},set:function(t){return c.lookAt(c.lastT(),null,null,t),c.computedUp},enumerable:!0},distance:{get:function(){return f},set:function(t){return c.setDistance(c.lastT(),t),t},enumerable:!0},distanceLimits:{get:function(){return c.getDistanceLimits(r)},set:function(t){return c.setDistanceLimits(t),t},enumerable:!0}}),t.addEventListener(\\\"contextmenu\\\",function(t){return t.preventDefault(),!1}),d._lastX=-1,d._lastY=-1,d._lastMods={shift:!1,control:!1,alt:!1,meta:!1},d.enableMouseListeners=function(){function e(e,r,i,a){var o=d.keyBindingMode;if(!1!==o){var s=\\\"rotate\\\"===o,l=\\\"pan\\\"===o,u=\\\"zoom\\\"===o,h=!!a.control,p=!!a.alt,g=!!a.shift,v=!!(1&e),m=!!(2&e),y=!!(4&e),x=1/t.clientHeight,b=x*(r-d._lastX),_=x*(i-d._lastY),w=d.flipX?1:-1,k=d.flipY?1:-1,T=Math.PI*d.rotateSpeed,A=n();if(-1!==d._lastX&&-1!==d._lastY&&((s&&v&&!h&&!p&&!g||v&&!h&&!p&&g)&&c.rotate(A,w*T*b,-k*T*_,0),(l&&v&&!h&&!p&&!g||m||v&&h&&!p&&!g)&&c.pan(A,-d.translateSpeed*b*f,d.translateSpeed*_*f,0),u&&v&&!h&&!p&&!g||y||v&&!h&&p&&!g)){var M=-d.zoomSpeed*_/window.innerHeight*(A-c.lastT())*100;c.pan(A,0,0,f*(Math.exp(M)-1))}return d._lastX=r,d._lastY=i,d._lastMods=a,!0}}d.mouseListener=a(t,e),t.addEventListener(\\\"touchstart\\\",function(r){var n=s(r.changedTouches[0],t);e(0,n[0],n[1],d._lastMods),e(1,n[0],n[1],d._lastMods),r.preventDefault()},!!l&&{passive:!1}),t.addEventListener(\\\"touchmove\\\",function(r){var n=s(r.changedTouches[0],t);e(1,n[0],n[1],d._lastMods),r.preventDefault()},!!l&&{passive:!1}),t.addEventListener(\\\"touchend\\\",function(t){e(0,d._lastX,d._lastY,d._lastMods),t.preventDefault()},!!l&&{passive:!1}),d.wheelListener=o(t,function(t,e){if(!1!==d.keyBindingMode&&d.enableWheel){var r=d.flipX?1:-1,i=d.flipY?1:-1,a=n();if(Math.abs(t)>Math.abs(e))c.rotate(a,0,0,-t*r*Math.PI*d.rotateSpeed/window.innerWidth);else if(!d._ortho){var o=-d.zoomSpeed*i*e/window.innerHeight*(a-c.lastT())/20;c.pan(a,0,0,f*(Math.exp(o)-1))}}},!0)},d.enableMouseListeners(),d};var n=t(\\\"right-now\\\"),i=t(\\\"3d-view\\\"),a=t(\\\"mouse-change\\\"),o=t(\\\"mouse-wheel\\\"),s=t(\\\"mouse-event-offset\\\"),l=t(\\\"has-passive-events\\\")},{\\\"3d-view\\\":50,\\\"has-passive-events\\\":406,\\\"mouse-change\\\":430,\\\"mouse-event-offset\\\":431,\\\"mouse-wheel\\\":433,\\\"right-now\\\":491}],288:[function(t,e,r){var n=t(\\\"glslify\\\"),i=t(\\\"gl-shader\\\"),a=n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\nattribute vec2 position;\\\\nvarying vec2 uv;\\\\nvoid main() {\\\\n  uv = position;\\\\n  gl_Position = vec4(position, 0, 1);\\\\n}\\\"]),o=n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\n\\\\nuniform sampler2D accumBuffer;\\\\nvarying vec2 uv;\\\\n\\\\nvoid main() {\\\\n  vec4 accum = texture2D(accumBuffer, 0.5 * (uv + 1.0));\\\\n  gl_FragColor = min(vec4(1,1,1,1), accum);\\\\n}\\\"]);e.exports=function(t){return i(t,a,o,null,[{name:\\\"position\\\",type:\\\"vec2\\\"}])}},{\\\"gl-shader\\\":300,glslify:404}],289:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./camera.js\\\"),i=t(\\\"gl-axes3d\\\"),a=t(\\\"gl-axes3d/properties\\\"),o=t(\\\"gl-spikes3d\\\"),s=t(\\\"gl-select-static\\\"),l=t(\\\"gl-fbo\\\"),c=t(\\\"a-big-triangle\\\"),u=t(\\\"mouse-change\\\"),f=t(\\\"mouse-wheel\\\"),h=t(\\\"gl-mat4/perspective\\\"),p=t(\\\"gl-mat4/ortho\\\"),d=t(\\\"./lib/shader\\\"),g=t(\\\"is-mobile\\\")({tablet:!0});function v(){this.mouse=[-1,-1],this.screen=null,this.distance=1/0,this.index=null,this.dataCoordinate=null,this.dataPosition=null,this.object=null,this.data=null}function m(t){var e=Math.round(Math.log(Math.abs(t))/Math.log(10));if(e<0){var r=Math.round(Math.pow(10,-e));return Math.ceil(t*r)/r}if(e>0){r=Math.round(Math.pow(10,e));return Math.ceil(t/r)*r}return Math.ceil(t)}function y(t){return\\\"boolean\\\"!=typeof t||t}e.exports={createScene:function(t){(t=t||{}).camera=t.camera||{};var e=t.canvas;if(!e)if(e=document.createElement(\\\"canvas\\\"),t.container){var r=t.container;r.appendChild(e)}else document.body.appendChild(e);var x=t.gl;x||(x=function(t,e){var r=null;try{(r=t.getContext(\\\"webgl\\\",e))||(r=t.getContext(\\\"experimental-webgl\\\",e))}catch(t){return null}return r}(e,t.glOptions||{premultipliedAlpha:!0,antialias:!0,preserveDrawingBuffer:g}));if(!x)throw new Error(\\\"webgl not supported\\\");var b=t.bounds||[[-10,-10,-10],[10,10,10]],_=new v,w=l(x,[x.drawingBufferWidth,x.drawingBufferHeight],{preferFloat:!g}),k=d(x),T=t.cameraObject&&!0===t.cameraObject._ortho||t.camera.projection&&\\\"orthographic\\\"===t.camera.projection.type||!1,A={eye:t.camera.eye||[2,0,0],center:t.camera.center||[0,0,0],up:t.camera.up||[0,1,0],zoomMin:t.camera.zoomMax||.1,zoomMax:t.camera.zoomMin||100,mode:t.camera.mode||\\\"turntable\\\",_ortho:T},M=t.axes||{},S=i(x,M);S.enable=!M.disable;var E=t.spikes||{},C=o(x,E),L=[],z=[],O=[],I=[],D=!0,P=!0,R=new Array(16),F=new Array(16),B={view:null,projection:R,model:F,_ortho:!1},P=!0,N=[x.drawingBufferWidth,x.drawingBufferHeight],j=t.cameraObject||n(e,A),V={gl:x,contextLost:!1,pixelRatio:t.pixelRatio||1,canvas:e,selection:_,camera:j,axes:S,axesPixels:null,spikes:C,bounds:b,objects:L,shape:N,aspect:t.aspectRatio||[1,1,1],pickRadius:t.pickRadius||10,zNear:t.zNear||.01,zFar:t.zFar||1e3,fovy:t.fovy||Math.PI/4,clearColor:t.clearColor||[0,0,0,0],autoResize:y(t.autoResize),autoBounds:y(t.autoBounds),autoScale:!!t.autoScale,autoCenter:y(t.autoCenter),clipToBounds:y(t.clipToBounds),snapToData:!!t.snapToData,onselect:t.onselect||null,onrender:t.onrender||null,onclick:t.onclick||null,cameraParams:B,oncontextloss:null,mouseListener:null,_stopped:!1},U=[x.drawingBufferWidth/V.pixelRatio|0,x.drawingBufferHeight/V.pixelRatio|0];function H(){if(!V._stopped&&V.autoResize){var t=e.parentNode,r=1,n=1;t&&t!==document.body?(r=t.clientWidth,n=t.clientHeight):(r=window.innerWidth,n=window.innerHeight);var i=0|Math.ceil(r*V.pixelRatio),a=0|Math.ceil(n*V.pixelRatio);if(i!==e.width||a!==e.height){e.width=i,e.height=a;var o=e.style;o.position=o.position||\\\"absolute\\\",o.left=\\\"0px\\\",o.top=\\\"0px\\\",o.width=r+\\\"px\\\",o.height=n+\\\"px\\\",D=!0}}}V.autoResize&&H();function q(){for(var t=L.length,e=I.length,r=0;r<e;++r)O[r]=0;t:for(var r=0;r<t;++r){var n=L[r],i=n.pickSlots;if(i){for(var a=0;a<e;++a)if(O[a]+i<255){z[r]=a,n.setPickBase(O[a]+1),O[a]+=i;continue t}var o=s(x,N);z[r]=e,I.push(o),O.push(i),n.setPickBase(1),e+=1}else z[r]=-1}for(;e>0&&0===O[e-1];)O.pop(),I.pop().dispose()}function G(){if(V.contextLost)return!0;x.isContextLost()&&(V.contextLost=!0,V.mouseListener.enabled=!1,V.selection.object=null,V.oncontextloss&&V.oncontextloss())}window.addEventListener(\\\"resize\\\",H),V.update=function(t){V._stopped||(t=t||{},D=!0,P=!0)},V.add=function(t){V._stopped||(t.axes=S,L.push(t),z.push(-1),D=!0,P=!0,q())},V.remove=function(t){if(!V._stopped){var e=L.indexOf(t);e<0||(L.splice(e,1),z.pop(),D=!0,P=!0,q())}},V.dispose=function(){if(!V._stopped&&(V._stopped=!0,window.removeEventListener(\\\"resize\\\",H),e.removeEventListener(\\\"webglcontextlost\\\",G),V.mouseListener.enabled=!1,!V.contextLost)){S.dispose(),C.dispose();for(var t=0;t<L.length;++t)L[t].dispose();w.dispose();for(var t=0;t<I.length;++t)I[t].dispose();k.dispose(),x=null,S=null,C=null,L=[]}},V.wheelListener=f(e,function(t,e){if(!1!==j.keyBindingMode&&j.enableWheel&&j._ortho){var r=t>e?1.1:1/1.1;V.aspect[0]*=r,V.aspect[1]*=r,V.aspect[2]*=r,V.redraw()}},!0),V._mouseRotating=!1,V._prevButtons=0,V.enableMouseListeners=function(){V.mouseListener=u(e,function(t,e,r){if(!V._stopped){var n=I.length,i=L.length,a=_.object;_.distance=1/0,_.mouse[0]=e,_.mouse[1]=r,_.object=null,_.screen=null,_.dataCoordinate=_.dataPosition=null;var o=!1;if(t&&V._prevButtons)V._mouseRotating=!0;else{V._mouseRotating&&(P=!0),V._mouseRotating=!1;for(var s=0;s<n;++s){var l=I[s].query(e,U[1]-r-1,V.pickRadius);if(l){if(l.distance>_.distance)continue;for(var c=0;c<i;++c){var u=L[c];if(z[c]===s){var f=u.pick(l);f&&(_.buttons=t,_.screen=l.coord,_.distance=l.distance,_.object=u,_.index=f.distance,_.dataPosition=f.position,_.dataCoordinate=f.dataCoordinate,_.data=f,o=!0)}}}}}a&&a!==_.object&&(a.highlight&&a.highlight(null),D=!0),_.object&&(_.object.highlight&&_.object.highlight(_.data),D=!0),(o=o||_.object!==a)&&V.onselect&&V.onselect(_),1&t&&!(1&V._prevButtons)&&V.onclick&&V.onclick(_),V._prevButtons=t}})},e.addEventListener(\\\"webglcontextlost\\\",G);var Y=[[1/0,1/0,1/0],[-1/0,-1/0,-1/0]],W=[Y[0].slice(),Y[1].slice()];function X(){if(!G()){H();var t=V.camera.tick();B.view=V.camera.matrix,D=D||t,P=P||t,S.pixelRatio=V.pixelRatio,C.pixelRatio=V.pixelRatio;var e=L.length,r=Y[0],n=Y[1];r[0]=r[1]=r[2]=1/0,n[0]=n[1]=n[2]=-1/0;for(var i=0;i<e;++i){var o=L[i];o.pixelRatio=V.pixelRatio,o.axes=V.axes,D=D||!!o.dirty,P=P||!!o.dirty;var s=o.bounds;if(s)for(var l=s[0],u=s[1],f=0;f<3;++f)r[f]=Math.min(r[f],l[f]),n[f]=Math.max(n[f],u[f])}var d=V.bounds;if(V.autoBounds)for(var f=0;f<3;++f){if(n[f]<r[f])r[f]=-1,n[f]=1;else{r[f]===n[f]&&(r[f]-=1,n[f]+=1);var g=.05*(n[f]-r[f]);r[f]=r[f]-g,n[f]=n[f]+g}d[0][f]=r[f],d[1][f]=n[f]}for(var v=!1,f=0;f<3;++f)v=v||W[0][f]!==d[0][f]||W[1][f]!==d[1][f],W[0][f]=d[0][f],W[1][f]=d[1][f];if(P=P||v,D=D||v){if(v){for(var y=[0,0,0],i=0;i<3;++i)y[i]=m((d[1][i]-d[0][i])/10);S.autoTicks?S.update({bounds:d,tickSpacing:y}):S.update({bounds:d})}var b=x.drawingBufferWidth,A=x.drawingBufferHeight;N[0]=b,N[1]=A,U[0]=0|Math.max(b/V.pixelRatio,1),U[1]=0|Math.max(A/V.pixelRatio,1),T?(p(R,-b/A,b/A,-1,1,V.zNear,V.zFar),B._ortho=!0):(h(R,V.fovy,b/A,V.zNear,V.zFar),B._ortho=!1);for(var i=0;i<16;++i)F[i]=0;F[15]=1;for(var M=0,i=0;i<3;++i)M=Math.max(M,d[1][i]-d[0][i]);for(var i=0;i<3;++i)V.autoScale?F[5*i]=V.aspect[i]/(d[1][i]-d[0][i]):F[5*i]=1/M,V.autoCenter&&(F[12+i]=.5*-F[5*i]*(d[0][i]+d[1][i]));for(var i=0;i<e;++i){var o=L[i];o.axesBounds=d,V.clipToBounds&&(o.clipBounds=d)}_.object&&(V.snapToData?C.position=_.dataCoordinate:C.position=_.dataPosition,C.bounds=d),P&&(P=!1,function(){if(G())return;x.colorMask(!0,!0,!0,!0),x.depthMask(!0),x.disable(x.BLEND),x.enable(x.DEPTH_TEST);for(var t=L.length,e=I.length,r=0;r<e;++r){var n=I[r];n.shape=U,n.begin();for(var i=0;i<t;++i)if(z[i]===r){var a=L[i];a.drawPick&&(a.pixelRatio=1,a.drawPick(B))}n.end()}}()),V.axesPixels=a(V.axes,B,b,A),V.onrender&&V.onrender(),x.bindFramebuffer(x.FRAMEBUFFER,null),x.viewport(0,0,b,A);var E=V.clearColor;x.clearColor(E[0],E[1],E[2],E[3]),x.clear(x.COLOR_BUFFER_BIT|x.DEPTH_BUFFER_BIT),x.depthMask(!0),x.colorMask(!0,!0,!0,!0),x.enable(x.DEPTH_TEST),x.depthFunc(x.LEQUAL),x.disable(x.BLEND),x.disable(x.CULL_FACE);var O=!1;S.enable&&(O=O||S.isTransparent(),S.draw(B)),C.axes=S,_.object&&C.draw(B),x.disable(x.CULL_FACE);for(var i=0;i<e;++i){var o=L[i];o.axes=S,o.pixelRatio=V.pixelRatio,o.isOpaque&&o.isOpaque()&&o.draw(B),o.isTransparent&&o.isTransparent()&&(O=!0)}if(O){w.shape=N,w.bind(),x.clear(x.DEPTH_BUFFER_BIT),x.colorMask(!1,!1,!1,!1),x.depthMask(!0),x.depthFunc(x.LESS),S.enable&&S.isTransparent()&&S.drawTransparent(B);for(var i=0;i<e;++i){var o=L[i];o.isOpaque&&o.isOpaque()&&o.draw(B)}x.enable(x.BLEND),x.blendEquation(x.FUNC_ADD),x.blendFunc(x.ONE,x.ONE_MINUS_SRC_ALPHA),x.colorMask(!0,!0,!0,!0),x.depthMask(!1),x.clearColor(0,0,0,0),x.clear(x.COLOR_BUFFER_BIT),S.isTransparent()&&S.drawTransparent(B);for(var i=0;i<e;++i){var o=L[i];o.isTransparent&&o.isTransparent()&&o.drawTransparent(B)}x.bindFramebuffer(x.FRAMEBUFFER,null),x.blendFunc(x.ONE,x.ONE_MINUS_SRC_ALPHA),x.disable(x.DEPTH_TEST),k.bind(),w.color[0].bind(0),k.uniforms.accumBuffer=0,c(x),x.disable(x.BLEND)}D=!1;for(var i=0;i<e;++i)L[i].dirty=!1}}}return V.enableMouseListeners(),function t(){V._stopped||V.contextLost||(X(),requestAnimationFrame(t))}(),V.redraw=function(){V._stopped||(D=!0,X())},V},createCamera:n}},{\\\"./camera.js\\\":287,\\\"./lib/shader\\\":288,\\\"a-big-triangle\\\":52,\\\"gl-axes3d\\\":232,\\\"gl-axes3d/properties\\\":239,\\\"gl-fbo\\\":248,\\\"gl-mat4/ortho\\\":267,\\\"gl-mat4/perspective\\\":268,\\\"gl-select-static\\\":299,\\\"gl-spikes3d\\\":309,\\\"is-mobile\\\":415,\\\"mouse-change\\\":430,\\\"mouse-wheel\\\":433}],290:[function(t,e,r){var n=t(\\\"glslify\\\");r.pointVertex=n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec2 position;\\\\n\\\\nuniform mat3 matrix;\\\\nuniform float pointSize;\\\\nuniform float pointCloud;\\\\n\\\\nhighp float rand(vec2 co) {\\\\n  highp float a = 12.9898;\\\\n  highp float b = 78.233;\\\\n  highp float c = 43758.5453;\\\\n  highp float d = dot(co.xy, vec2(a, b));\\\\n  highp float e = mod(d, 3.14);\\\\n  return fract(sin(e) * c);\\\\n}\\\\n\\\\nvoid main() {\\\\n  vec3 hgPosition = matrix * vec3(position, 1);\\\\n  gl_Position  = vec4(hgPosition.xy, 0, hgPosition.z);\\\\n    // if we don't jitter the point size a bit, overall point cloud\\\\n    // saturation 'jumps' on zooming, which is disturbing and confusing\\\\n  gl_PointSize = pointSize * ((19.5 + rand(position)) / 20.0);\\\\n  if(pointCloud != 0.0) { // pointCloud is truthy\\\\n    // get the same square surface as circle would be\\\\n    gl_PointSize *= 0.886;\\\\n  }\\\\n}\\\"]),r.pointFragment=n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\n\\\\nuniform vec4 color, borderColor;\\\\nuniform float centerFraction;\\\\nuniform float pointCloud;\\\\n\\\\nvoid main() {\\\\n  float radius;\\\\n  vec4 baseColor;\\\\n  if(pointCloud != 0.0) { // pointCloud is truthy\\\\n    if(centerFraction == 1.0) {\\\\n      gl_FragColor = color;\\\\n    } else {\\\\n      gl_FragColor = mix(borderColor, color, centerFraction);\\\\n    }\\\\n  } else {\\\\n    radius = length(2.0 * gl_PointCoord.xy - 1.0);\\\\n    if(radius > 1.0) {\\\\n      discard;\\\\n    }\\\\n    baseColor = mix(borderColor, color, step(radius, centerFraction));\\\\n    gl_FragColor = vec4(baseColor.rgb * baseColor.a, baseColor.a);\\\\n  }\\\\n}\\\\n\\\"]),r.pickVertex=n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec2 position;\\\\nattribute vec4 pickId;\\\\n\\\\nuniform mat3 matrix;\\\\nuniform float pointSize;\\\\nuniform vec4 pickOffset;\\\\n\\\\nvarying vec4 fragId;\\\\n\\\\nvoid main() {\\\\n  vec3 hgPosition = matrix * vec3(position, 1);\\\\n  gl_Position  = vec4(hgPosition.xy, 0, hgPosition.z);\\\\n  gl_PointSize = pointSize;\\\\n\\\\n  vec4 id = pickId + pickOffset;\\\\n  id.y += floor(id.x / 256.0);\\\\n  id.x -= floor(id.x / 256.0) * 256.0;\\\\n\\\\n  id.z += floor(id.y / 256.0);\\\\n  id.y -= floor(id.y / 256.0) * 256.0;\\\\n\\\\n  id.w += floor(id.z / 256.0);\\\\n  id.z -= floor(id.z / 256.0) * 256.0;\\\\n\\\\n  fragId = id;\\\\n}\\\\n\\\"]),r.pickFragment=n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\n\\\\nvarying vec4 fragId;\\\\n\\\\nvoid main() {\\\\n  float radius = length(2.0 * gl_PointCoord.xy - 1.0);\\\\n  if(radius > 1.0) {\\\\n    discard;\\\\n  }\\\\n  gl_FragColor = fragId / 255.0;\\\\n}\\\\n\\\"])},{glslify:404}],291:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-shader\\\"),i=t(\\\"gl-buffer\\\"),a=t(\\\"typedarray-pool\\\"),o=t(\\\"./lib/shader\\\");function s(t,e,r,n,i){this.plot=t,this.offsetBuffer=e,this.pickBuffer=r,this.shader=n,this.pickShader=i,this.sizeMin=.5,this.sizeMinCap=2,this.sizeMax=20,this.areaRatio=1,this.pointCount=0,this.color=[1,0,0,1],this.borderColor=[0,0,0,1],this.blend=!1,this.pickOffset=0,this.points=null}e.exports=function(t,e){var r=t.gl,a=i(r),l=i(r),c=n(r,o.pointVertex,o.pointFragment),u=n(r,o.pickVertex,o.pickFragment),f=new s(t,a,l,c,u);return f.update(e),t.addObject(f),f};var l,c,u=s.prototype;u.dispose=function(){this.shader.dispose(),this.pickShader.dispose(),this.offsetBuffer.dispose(),this.pickBuffer.dispose(),this.plot.removeObject(this)},u.update=function(t){var e;function r(e,r){return e in t?t[e]:r}t=t||{},this.sizeMin=r(\\\"sizeMin\\\",.5),this.sizeMax=r(\\\"sizeMax\\\",20),this.color=r(\\\"color\\\",[1,0,0,1]).slice(),this.areaRatio=r(\\\"areaRatio\\\",1),this.borderColor=r(\\\"borderColor\\\",[0,0,0,1]).slice(),this.blend=r(\\\"blend\\\",!1);var n=t.positions.length>>>1,i=t.positions instanceof Float32Array,o=t.idToIndex instanceof Int32Array&&t.idToIndex.length>=n,s=t.positions,l=i?s:a.mallocFloat32(s.length),c=o?t.idToIndex:a.mallocInt32(n);if(i||l.set(s),!o)for(l.set(s),e=0;e<n;e++)c[e]=e;this.points=s,this.offsetBuffer.update(l),this.pickBuffer.update(c),i||a.free(l),o||a.free(c),this.pointCount=n,this.pickOffset=0},u.unifiedDraw=(l=[1,0,0,0,1,0,0,0,1],c=[0,0,0,0],function(t){var e=void 0!==t,r=e?this.pickShader:this.shader,n=this.plot.gl,i=this.plot.dataBox;if(0===this.pointCount)return t;var a=i[2]-i[0],o=i[3]-i[1],s=function(t,e){var r,n=0,i=t.length>>>1;for(r=0;r<i;r++){var a=t[2*r],o=t[2*r+1];a>=e[0]&&a<=e[2]&&o>=e[1]&&o<=e[3]&&n++}return n}(this.points,i),u=this.plot.pickPixelRatio*Math.max(Math.min(this.sizeMinCap,this.sizeMin),Math.min(this.sizeMax,this.sizeMax/Math.pow(s,.33333)));l[0]=2/a,l[4]=2/o,l[6]=-2*i[0]/a-1,l[7]=-2*i[1]/o-1,this.offsetBuffer.bind(),r.bind(),r.attributes.position.pointer(),r.uniforms.matrix=l,r.uniforms.color=this.color,r.uniforms.borderColor=this.borderColor,r.uniforms.pointCloud=u<5,r.uniforms.pointSize=u,r.uniforms.centerFraction=Math.min(1,Math.max(0,Math.sqrt(1-this.areaRatio))),e&&(c[0]=255&t,c[1]=t>>8&255,c[2]=t>>16&255,c[3]=t>>24&255,this.pickBuffer.bind(),r.attributes.pickId.pointer(n.UNSIGNED_BYTE),r.uniforms.pickOffset=c,this.pickOffset=t);var f=n.getParameter(n.BLEND),h=n.getParameter(n.DITHER);return f&&!this.blend&&n.disable(n.BLEND),h&&n.disable(n.DITHER),n.drawArrays(n.POINTS,0,this.pointCount),f&&!this.blend&&n.enable(n.BLEND),h&&n.enable(n.DITHER),t+this.pointCount}),u.draw=u.unifiedDraw,u.drawPick=u.unifiedDraw,u.pick=function(t,e,r){var n=this.pickOffset,i=this.pointCount;if(r<n||r>=n+i)return null;var a=r-n,o=this.points;return{object:this,pointId:a,dataCoord:[o[2*a],o[2*a+1]]}}},{\\\"./lib/shader\\\":290,\\\"gl-buffer\\\":240,\\\"gl-shader\\\":300,\\\"typedarray-pool\\\":532}],292:[function(t,e,r){e.exports=function(t,e,r,n){var i,a,o,s,l,c=e[0],u=e[1],f=e[2],h=e[3],p=r[0],d=r[1],g=r[2],v=r[3];(a=c*p+u*d+f*g+h*v)<0&&(a=-a,p=-p,d=-d,g=-g,v=-v);1-a>1e-6?(i=Math.acos(a),o=Math.sin(i),s=Math.sin((1-n)*i)/o,l=Math.sin(n*i)/o):(s=1-n,l=n);return t[0]=s*c+l*p,t[1]=s*u+l*d,t[2]=s*f+l*g,t[3]=s*h+l*v,t}},{}],293:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){return t||0===t?t.toString():\\\"\\\"}},{}],294:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"vectorize-text\\\");e.exports=function(t,e,r){var a=i[e];a||(a=i[e]={});if(t in a)return a[t];var o={textAlign:\\\"center\\\",textBaseline:\\\"middle\\\",lineHeight:1,font:e,lineSpacing:1.25,styletags:{breaklines:!0,bolds:!0,italics:!0,subscripts:!0,superscripts:!0},triangles:!0},s=n(t,o);o.triangles=!1;var l,c,u=n(t,o);if(r&&1!==r){for(l=0;l<s.positions.length;++l)for(c=0;c<s.positions[l].length;++c)s.positions[l][c]/=r;for(l=0;l<u.positions.length;++l)for(c=0;c<u.positions[l].length;++c)u.positions[l][c]/=r}var f=[[1/0,1/0],[-1/0,-1/0]],h=u.positions.length;for(l=0;l<h;++l){var p=u.positions[l];for(c=0;c<2;++c)f[0][c]=Math.min(f[0][c],p[c]),f[1][c]=Math.max(f[1][c],p[c])}return a[t]=[s,u,f]};var i={}},{\\\"vectorize-text\\\":537}],295:[function(t,e,r){var n=t(\\\"gl-shader\\\"),i=t(\\\"glslify\\\"),a=i([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nattribute vec3 position;\\\\nattribute vec4 color;\\\\nattribute vec2 glyph;\\\\nattribute vec4 id;\\\\n\\\\nuniform vec4 highlightId;\\\\nuniform float highlightScale;\\\\nuniform mat4 model, view, projection;\\\\nuniform vec3 clipBounds[2];\\\\n\\\\nvarying vec4 interpColor;\\\\nvarying vec4 pickId;\\\\nvarying vec3 dataCoordinate;\\\\n\\\\nvoid main() {\\\\n  if (outOfRange(clipBounds[0], clipBounds[1], position)) {\\\\n\\\\n    gl_Position = vec4(0,0,0,0);\\\\n  } else {\\\\n    float scale = 1.0;\\\\n    if(distance(highlightId, id) < 0.0001) {\\\\n      scale = highlightScale;\\\\n    }\\\\n\\\\n    vec4 worldPosition = model * vec4(position, 1);\\\\n    vec4 viewPosition = view * worldPosition;\\\\n    viewPosition = viewPosition / viewPosition.w;\\\\n    vec4 clipPosition = projection * (viewPosition + scale * vec4(glyph.x, -glyph.y, 0, 0));\\\\n\\\\n    gl_Position = clipPosition;\\\\n    interpColor = color;\\\\n    pickId = id;\\\\n    dataCoordinate = position;\\\\n  }\\\\n}\\\"]),o=i([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nattribute vec3 position;\\\\nattribute vec4 color;\\\\nattribute vec2 glyph;\\\\nattribute vec4 id;\\\\n\\\\nuniform mat4 model, view, projection;\\\\nuniform vec2 screenSize;\\\\nuniform vec3 clipBounds[2];\\\\nuniform float highlightScale, pixelRatio;\\\\nuniform vec4 highlightId;\\\\n\\\\nvarying vec4 interpColor;\\\\nvarying vec4 pickId;\\\\nvarying vec3 dataCoordinate;\\\\n\\\\nvoid main() {\\\\n  if (outOfRange(clipBounds[0], clipBounds[1], position)) {\\\\n\\\\n    gl_Position = vec4(0,0,0,0);\\\\n  } else {\\\\n    float scale = pixelRatio;\\\\n    if(distance(highlightId.bgr, id.bgr) < 0.001) {\\\\n      scale *= highlightScale;\\\\n    }\\\\n\\\\n    vec4 worldPosition = model * vec4(position, 1.0);\\\\n    vec4 viewPosition = view * worldPosition;\\\\n    vec4 clipPosition = projection * viewPosition;\\\\n    clipPosition /= clipPosition.w;\\\\n\\\\n    gl_Position = clipPosition + vec4(screenSize * scale * vec2(glyph.x, -glyph.y), 0.0, 0.0);\\\\n    interpColor = color;\\\\n    pickId = id;\\\\n    dataCoordinate = position;\\\\n  }\\\\n}\\\"]),s=i([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nattribute vec3 position;\\\\nattribute vec4 color;\\\\nattribute vec2 glyph;\\\\nattribute vec4 id;\\\\n\\\\nuniform float highlightScale;\\\\nuniform vec4 highlightId;\\\\nuniform vec3 axes[2];\\\\nuniform mat4 model, view, projection;\\\\nuniform vec2 screenSize;\\\\nuniform vec3 clipBounds[2];\\\\nuniform float scale, pixelRatio;\\\\n\\\\nvarying vec4 interpColor;\\\\nvarying vec4 pickId;\\\\nvarying vec3 dataCoordinate;\\\\n\\\\nvoid main() {\\\\n  if (outOfRange(clipBounds[0], clipBounds[1], position)) {\\\\n\\\\n    gl_Position = vec4(0,0,0,0);\\\\n  } else {\\\\n    float lscale = pixelRatio * scale;\\\\n    if(distance(highlightId, id) < 0.0001) {\\\\n      lscale *= highlightScale;\\\\n    }\\\\n\\\\n    vec4 clipCenter   = projection * view * model * vec4(position, 1);\\\\n    vec3 dataPosition = position + 0.5*lscale*(axes[0] * glyph.x + axes[1] * glyph.y) * clipCenter.w * screenSize.y;\\\\n    vec4 clipPosition = projection * view * model * vec4(dataPosition, 1);\\\\n\\\\n    gl_Position = clipPosition;\\\\n    interpColor = color;\\\\n    pickId = id;\\\\n    dataCoordinate = dataPosition;\\\\n  }\\\\n}\\\\n\\\"]),l=i([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nuniform vec3 fragClipBounds[2];\\\\nuniform float opacity;\\\\n\\\\nvarying vec4 interpColor;\\\\nvarying vec4 pickId;\\\\nvarying vec3 dataCoordinate;\\\\n\\\\nvoid main() {\\\\n  if (\\\\n    outOfRange(fragClipBounds[0], fragClipBounds[1], dataCoordinate) ||\\\\n    interpColor.a * opacity == 0.\\\\n  ) discard;\\\\n  gl_FragColor = interpColor * opacity;\\\\n}\\\\n\\\"]),c=i([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nuniform vec3 fragClipBounds[2];\\\\nuniform float pickGroup;\\\\n\\\\nvarying vec4 pickId;\\\\nvarying vec3 dataCoordinate;\\\\n\\\\nvoid main() {\\\\n  if (outOfRange(fragClipBounds[0], fragClipBounds[1], dataCoordinate)) discard;\\\\n\\\\n  gl_FragColor = vec4(pickGroup, pickId.bgr);\\\\n}\\\"]),u=[{name:\\\"position\\\",type:\\\"vec3\\\"},{name:\\\"color\\\",type:\\\"vec4\\\"},{name:\\\"glyph\\\",type:\\\"vec2\\\"},{name:\\\"id\\\",type:\\\"vec4\\\"}],f={vertex:a,fragment:l,attributes:u},h={vertex:o,fragment:l,attributes:u},p={vertex:s,fragment:l,attributes:u},d={vertex:a,fragment:c,attributes:u},g={vertex:o,fragment:c,attributes:u},v={vertex:s,fragment:c,attributes:u};function m(t,e){var r=n(t,e),i=r.attributes;return i.position.location=0,i.color.location=1,i.glyph.location=2,i.id.location=3,r}r.createPerspective=function(t){return m(t,f)},r.createOrtho=function(t){return m(t,h)},r.createProject=function(t){return m(t,p)},r.createPickPerspective=function(t){return m(t,d)},r.createPickOrtho=function(t){return m(t,g)},r.createPickProject=function(t){return m(t,v)}},{\\\"gl-shader\\\":300,glslify:404}],296:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"is-string-blank\\\"),i=t(\\\"gl-buffer\\\"),a=t(\\\"gl-vao\\\"),o=t(\\\"typedarray-pool\\\"),s=t(\\\"gl-mat4/multiply\\\"),l=t(\\\"./lib/shaders\\\"),c=t(\\\"./lib/glyphs\\\"),u=t(\\\"./lib/get-simple-string\\\"),f=[1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1];function h(t,e){var r=t[0],n=t[1],i=t[2],a=t[3];return t[0]=e[0]*r+e[4]*n+e[8]*i+e[12]*a,t[1]=e[1]*r+e[5]*n+e[9]*i+e[13]*a,t[2]=e[2]*r+e[6]*n+e[10]*i+e[14]*a,t[3]=e[3]*r+e[7]*n+e[11]*i+e[15]*a,t}function p(t,e,r,n){return h(n,n),h(n,n),h(n,n)}function d(t,e){this.index=t,this.dataCoordinate=this.position=e}function g(t){return!0===t?1:t>1?1:t}function v(t,e,r,n,i,a,o,s,l,c,u,f){this.gl=t,this.pixelRatio=1,this.shader=e,this.orthoShader=r,this.projectShader=n,this.pointBuffer=i,this.colorBuffer=a,this.glyphBuffer=o,this.idBuffer=s,this.vao=l,this.vertexCount=0,this.lineVertexCount=0,this.opacity=1,this.hasAlpha=!1,this.lineWidth=0,this.projectScale=[2/3,2/3,2/3],this.projectOpacity=[1,1,1],this.projectHasAlpha=!1,this.pickId=0,this.pickPerspectiveShader=c,this.pickOrthoShader=u,this.pickProjectShader=f,this.points=[],this._selectResult=new d(0,[0,0,0]),this.useOrtho=!0,this.bounds=[[1/0,1/0,1/0],[-1/0,-1/0,-1/0]],this.axesProject=[!0,!0,!0],this.axesBounds=[[-1/0,-1/0,-1/0],[1/0,1/0,1/0]],this.highlightId=[1,1,1,1],this.highlightScale=2,this.clipBounds=[[-1/0,-1/0,-1/0],[1/0,1/0,1/0]],this.dirty=!0}e.exports=function(t){var e=t.gl,r=l.createPerspective(e),n=l.createOrtho(e),o=l.createProject(e),s=l.createPickPerspective(e),c=l.createPickOrtho(e),u=l.createPickProject(e),f=i(e),h=i(e),p=i(e),d=i(e),g=a(e,[{buffer:f,size:3,type:e.FLOAT},{buffer:h,size:4,type:e.FLOAT},{buffer:p,size:2,type:e.FLOAT},{buffer:d,size:4,type:e.UNSIGNED_BYTE,normalized:!0}]),m=new v(e,r,n,o,f,h,p,d,g,s,c,u);return m.update(t),m};var m=v.prototype;m.pickSlots=1,m.setPickBase=function(t){this.pickId=t},m.isTransparent=function(){if(this.hasAlpha)return!0;for(var t=0;t<3;++t)if(this.axesProject[t]&&this.projectHasAlpha)return!0;return!1},m.isOpaque=function(){if(!this.hasAlpha)return!0;for(var t=0;t<3;++t)if(this.axesProject[t]&&!this.projectHasAlpha)return!0;return!1};var y=[0,0],x=[0,0,0],b=[0,0,0],_=[0,0,0,1],w=[0,0,0,1],k=f.slice(),T=[0,0,0],A=[[0,0,0],[0,0,0]];function M(t){return t[0]=t[1]=t[2]=0,t}function S(t,e){return t[0]=e[0],t[1]=e[1],t[2]=e[2],t[3]=1,t}function E(t,e,r,n){return t[0]=e[0],t[1]=e[1],t[2]=e[2],t[r]=n,t}function C(t,e,r,n){var i,a=e.axesProject,o=e.gl,l=t.uniforms,c=r.model||f,u=r.view||f,h=r.projection||f,d=e.axesBounds,g=function(t){for(var e=A,r=0;r<2;++r)for(var n=0;n<3;++n)e[r][n]=Math.max(Math.min(t[r][n],1e8),-1e8);return e}(e.clipBounds);i=e.axes&&e.axes.lastCubeProps?e.axes.lastCubeProps.axis:[1,1,1],y[0]=2/o.drawingBufferWidth,y[1]=2/o.drawingBufferHeight,t.bind(),l.view=u,l.projection=h,l.screenSize=y,l.highlightId=e.highlightId,l.highlightScale=e.highlightScale,l.clipBounds=g,l.pickGroup=e.pickId/255,l.pixelRatio=n;for(var v=0;v<3;++v)if(a[v]){l.scale=e.projectScale[v],l.opacity=e.projectOpacity[v];for(var m=k,C=0;C<16;++C)m[C]=0;for(C=0;C<4;++C)m[5*C]=1;m[5*v]=0,i[v]<0?m[12+v]=d[0][v]:m[12+v]=d[1][v],s(m,c,m),l.model=m;var L=(v+1)%3,z=(v+2)%3,O=M(x),I=M(b);O[L]=1,I[z]=1;var D=p(0,0,0,S(_,O)),P=p(0,0,0,S(w,I));if(Math.abs(D[1])>Math.abs(P[1])){var R=D;D=P,P=R,R=O,O=I,I=R;var F=L;L=z,z=F}D[0]<0&&(O[L]=-1),P[1]>0&&(I[z]=-1);var B=0,N=0;for(C=0;C<4;++C)B+=Math.pow(c[4*L+C],2),N+=Math.pow(c[4*z+C],2);O[L]/=Math.sqrt(B),I[z]/=Math.sqrt(N),l.axes[0]=O,l.axes[1]=I,l.fragClipBounds[0]=E(T,g[0],v,-1e8),l.fragClipBounds[1]=E(T,g[1],v,1e8),e.vao.bind(),e.vao.draw(o.TRIANGLES,e.vertexCount),e.lineWidth>0&&(o.lineWidth(e.lineWidth*n),e.vao.draw(o.LINES,e.lineVertexCount,e.vertexCount)),e.vao.unbind()}}var L=[[-1e8,-1e8,-1e8],[1e8,1e8,1e8]];function z(t,e,r,n,i,a,o){var s=r.gl;if((a===r.projectHasAlpha||o)&&C(e,r,n,i),a===r.hasAlpha||o){t.bind();var l=t.uniforms;l.model=n.model||f,l.view=n.view||f,l.projection=n.projection||f,y[0]=2/s.drawingBufferWidth,y[1]=2/s.drawingBufferHeight,l.screenSize=y,l.highlightId=r.highlightId,l.highlightScale=r.highlightScale,l.fragClipBounds=L,l.clipBounds=r.axes.bounds,l.opacity=r.opacity,l.pickGroup=r.pickId/255,l.pixelRatio=i,r.vao.bind(),r.vao.draw(s.TRIANGLES,r.vertexCount),r.lineWidth>0&&(s.lineWidth(r.lineWidth*i),r.vao.draw(s.LINES,r.lineVertexCount,r.vertexCount)),r.vao.unbind()}}function O(t,e,r,i){var a;a=Array.isArray(t)?e<t.length?t[e]:void 0:t,a=u(a);var o=!0;n(a)&&(a=\\\"\\\\u25bc\\\",o=!1);var s=c(a,r,i);return{mesh:s[0],lines:s[1],bounds:s[2],visible:o}}m.draw=function(t){z(this.useOrtho?this.orthoShader:this.shader,this.projectShader,this,t,this.pixelRatio,!1,!1)},m.drawTransparent=function(t){z(this.useOrtho?this.orthoShader:this.shader,this.projectShader,this,t,this.pixelRatio,!0,!1)},m.drawPick=function(t){z(this.useOrtho?this.pickOrthoShader:this.pickPerspectiveShader,this.pickProjectShader,this,t,1,!0,!0)},m.pick=function(t){if(!t)return null;if(t.id!==this.pickId)return null;var e=t.value[2]+(t.value[1]<<8)+(t.value[0]<<16);if(e>=this.pointCount||e<0)return null;var r=this.points[e],n=this._selectResult;n.index=e;for(var i=0;i<3;++i)n.position[i]=n.dataCoordinate[i]=r[i];return n},m.highlight=function(t){if(t){var e=t.index,r=255&e,n=e>>8&255,i=e>>16&255;this.highlightId=[r/255,n/255,i/255,0]}else this.highlightId=[1,1,1,1]},m.update=function(t){if(\\\"perspective\\\"in(t=t||{})&&(this.useOrtho=!t.perspective),\\\"orthographic\\\"in t&&(this.useOrtho=!!t.orthographic),\\\"lineWidth\\\"in t&&(this.lineWidth=t.lineWidth),\\\"project\\\"in t)if(Array.isArray(t.project))this.axesProject=t.project;else{var e=!!t.project;this.axesProject=[e,e,e]}if(\\\"projectScale\\\"in t)if(Array.isArray(t.projectScale))this.projectScale=t.projectScale.slice();else{var r=+t.projectScale;this.projectScale=[r,r,r]}if(this.projectHasAlpha=!1,\\\"projectOpacity\\\"in t){if(Array.isArray(t.projectOpacity))this.projectOpacity=t.projectOpacity.slice();else{r=+t.projectOpacity;this.projectOpacity=[r,r,r]}for(var n=0;n<3;++n)this.projectOpacity[n]=g(this.projectOpacity[n]),this.projectOpacity[n]<1&&(this.projectHasAlpha=!0)}this.hasAlpha=!1,\\\"opacity\\\"in t&&(this.opacity=g(t.opacity),this.opacity<1&&(this.hasAlpha=!0)),this.dirty=!0;var i,a,s=t.position,l=t.font||\\\"normal\\\",c=t.alignment||[0,0];if(2===c.length)i=c[0],a=c[1];else{i=[],a=[];for(n=0;n<c.length;++n)i[n]=c[n][0],a[n]=c[n][1]}var u=[1/0,1/0,1/0],f=[-1/0,-1/0,-1/0],h=t.glyph,p=t.color,d=t.size,v=t.angle,m=t.lineColor,y=-1,x=0,b=0,_=0;if(s.length){_=s.length;t:for(n=0;n<_;++n){for(var w=s[n],k=0;k<3;++k)if(isNaN(w[k])||!isFinite(w[k]))continue t;var T=(N=O(h,n,l,this.pixelRatio)).mesh,A=N.lines,M=N.bounds;x+=3*T.cells.length,b+=2*A.edges.length}}var S=x+b,E=o.mallocFloat(3*S),C=o.mallocFloat(4*S),L=o.mallocFloat(2*S),z=o.mallocUint32(S);if(S>0){var I=0,D=x,P=[0,0,0,1],R=[0,0,0,1],F=Array.isArray(p)&&Array.isArray(p[0]),B=Array.isArray(m)&&Array.isArray(m[0]);t:for(n=0;n<_;++n){y+=1;for(w=s[n],k=0;k<3;++k){if(isNaN(w[k])||!isFinite(w[k]))continue t;f[k]=Math.max(f[k],w[k]),u[k]=Math.min(u[k],w[k])}T=(N=O(h,n,l,this.pixelRatio)).mesh,A=N.lines,M=N.bounds;var N,j=N.visible;if(j)if(Array.isArray(p)){if(3===(V=F?n<p.length?p[n]:[0,0,0,0]:p).length){for(k=0;k<3;++k)P[k]=V[k];P[3]=1}else if(4===V.length){for(k=0;k<4;++k)P[k]=V[k];!this.hasAlpha&&V[3]<1&&(this.hasAlpha=!0)}}else P[0]=P[1]=P[2]=0,P[3]=1;else P=[1,1,1,0];if(j)if(Array.isArray(m)){var V;if(3===(V=B?n<m.length?m[n]:[0,0,0,0]:m).length){for(k=0;k<3;++k)R[k]=V[k];R[k]=1}else if(4===V.length){for(k=0;k<4;++k)R[k]=V[k];!this.hasAlpha&&V[3]<1&&(this.hasAlpha=!0)}}else R[0]=R[1]=R[2]=0,R[3]=1;else R=[1,1,1,0];var U=.5;j?Array.isArray(d)?U=n<d.length?+d[n]:12:d?U=+d:this.useOrtho&&(U=12):U=0;var H=0;Array.isArray(v)?H=n<v.length?+v[n]:0:v&&(H=+v);var q=Math.cos(H),G=Math.sin(H);for(w=s[n],k=0;k<3;++k)f[k]=Math.max(f[k],w[k]),u[k]=Math.min(u[k],w[k]);var Y=i,W=a;Y=0;Array.isArray(i)?Y=n<i.length?i[n]:0:i&&(Y=i);W=0;Array.isArray(a)?W=n<a.length?a[n]:0:a&&(W=a);var X=[Y*=Y>0?1-M[0][0]:Y<0?1+M[1][0]:1,W*=W>0?1-M[0][1]:W<0?1+M[1][1]:1],Z=T.cells||[],$=T.positions||[];for(k=0;k<Z.length;++k)for(var J=Z[k],K=0;K<3;++K){for(var Q=0;Q<3;++Q)E[3*I+Q]=w[Q];for(Q=0;Q<4;++Q)C[4*I+Q]=P[Q];z[I]=y;var tt=$[J[K]];L[2*I]=U*(q*tt[0]-G*tt[1]+X[0]),L[2*I+1]=U*(G*tt[0]+q*tt[1]+X[1]),I+=1}for(Z=A.edges,$=A.positions,k=0;k<Z.length;++k)for(J=Z[k],K=0;K<2;++K){for(Q=0;Q<3;++Q)E[3*D+Q]=w[Q];for(Q=0;Q<4;++Q)C[4*D+Q]=R[Q];z[D]=y;tt=$[J[K]];L[2*D]=U*(q*tt[0]-G*tt[1]+X[0]),L[2*D+1]=U*(G*tt[0]+q*tt[1]+X[1]),D+=1}}}this.bounds=[u,f],this.points=s,this.pointCount=s.length,this.vertexCount=x,this.lineVertexCount=b,this.pointBuffer.update(E),this.colorBuffer.update(C),this.glyphBuffer.update(L),this.idBuffer.update(z),o.free(E),o.free(C),o.free(L),o.free(z)},m.dispose=function(){this.shader.dispose(),this.orthoShader.dispose(),this.pickPerspectiveShader.dispose(),this.pickOrthoShader.dispose(),this.vao.dispose(),this.pointBuffer.dispose(),this.colorBuffer.dispose(),this.glyphBuffer.dispose(),this.idBuffer.dispose()}},{\\\"./lib/get-simple-string\\\":293,\\\"./lib/glyphs\\\":294,\\\"./lib/shaders\\\":295,\\\"gl-buffer\\\":240,\\\"gl-mat4/multiply\\\":266,\\\"gl-vao\\\":322,\\\"is-string-blank\\\":418,\\\"typedarray-pool\\\":532}],297:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"glslify\\\");r.boxVertex=n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec2 vertex;\\\\n\\\\nuniform vec2 cornerA, cornerB;\\\\n\\\\nvoid main() {\\\\n  gl_Position = vec4(mix(cornerA, cornerB, vertex), 0, 1);\\\\n}\\\\n\\\"]),r.boxFragment=n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\n\\\\nuniform vec4 color;\\\\n\\\\nvoid main() {\\\\n  gl_FragColor = color;\\\\n}\\\\n\\\"])},{glslify:404}],298:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-shader\\\"),i=t(\\\"gl-buffer\\\"),a=t(\\\"./lib/shaders\\\");function o(t,e,r){this.plot=t,this.boxBuffer=e,this.boxShader=r,this.enabled=!0,this.selectBox=[1/0,1/0,-1/0,-1/0],this.borderColor=[0,0,0,1],this.innerFill=!1,this.innerColor=[0,0,0,.25],this.outerFill=!0,this.outerColor=[0,0,0,.5],this.borderWidth=10}e.exports=function(t,e){var r=t.gl,s=i(r,[0,0,0,1,1,0,1,1]),l=n(r,a.boxVertex,a.boxFragment),c=new o(t,s,l);return c.update(e),t.addOverlay(c),c};var s=o.prototype;s.draw=function(){if(this.enabled){var t=this.plot,e=this.selectBox,r=this.borderWidth,n=(this.innerFill,this.innerColor),i=(this.outerFill,this.outerColor),a=this.borderColor,o=t.box,s=t.screenBox,l=t.dataBox,c=t.viewBox,u=t.pixelRatio,f=(e[0]-l[0])*(c[2]-c[0])/(l[2]-l[0])+c[0],h=(e[1]-l[1])*(c[3]-c[1])/(l[3]-l[1])+c[1],p=(e[2]-l[0])*(c[2]-c[0])/(l[2]-l[0])+c[0],d=(e[3]-l[1])*(c[3]-c[1])/(l[3]-l[1])+c[1];if(f=Math.max(f,c[0]),h=Math.max(h,c[1]),p=Math.min(p,c[2]),d=Math.min(d,c[3]),!(p<f||d<h)){o.bind();var g=s[2]-s[0],v=s[3]-s[1];if(this.outerFill&&(o.drawBox(0,0,g,h,i),o.drawBox(0,h,f,d,i),o.drawBox(0,d,g,v,i),o.drawBox(p,h,g,d,i)),this.innerFill&&o.drawBox(f,h,p,d,n),r>0){var m=r*u;o.drawBox(f-m,h-m,p+m,h+m,a),o.drawBox(f-m,d-m,p+m,d+m,a),o.drawBox(f-m,h-m,f+m,d+m,a),o.drawBox(p-m,h-m,p+m,d+m,a)}}}},s.update=function(t){t=t||{},this.innerFill=!!t.innerFill,this.outerFill=!!t.outerFill,this.innerColor=(t.innerColor||[0,0,0,.5]).slice(),this.outerColor=(t.outerColor||[0,0,0,.5]).slice(),this.borderColor=(t.borderColor||[0,0,0,1]).slice(),this.borderWidth=t.borderWidth||0,this.selectBox=(t.selectBox||this.selectBox).slice()},s.dispose=function(){this.boxBuffer.dispose(),this.boxShader.dispose(),this.plot.removeOverlay(this)}},{\\\"./lib/shaders\\\":297,\\\"gl-buffer\\\":240,\\\"gl-shader\\\":300}],299:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){var r=n(t,e),a=i.mallocUint8(e[0]*e[1]*4);return new c(t,r,a)};var n=t(\\\"gl-fbo\\\"),i=t(\\\"typedarray-pool\\\"),a=t(\\\"ndarray\\\"),o=t(\\\"bit-twiddle\\\").nextPow2,s=t(\\\"cwise/lib/wrapper\\\")({args:[\\\"array\\\",{offset:[0,0,1],array:0},{offset:[0,0,2],array:0},{offset:[0,0,3],array:0},\\\"scalar\\\",\\\"scalar\\\",\\\"index\\\"],pre:{body:\\\"{this_closestD2=1e8,this_closestX=-1,this_closestY=-1}\\\",args:[],thisVars:[\\\"this_closestD2\\\",\\\"this_closestX\\\",\\\"this_closestY\\\"],localVars:[]},body:{body:\\\"{if(_inline_16_arg0_<255||_inline_16_arg1_<255||_inline_16_arg2_<255||_inline_16_arg3_<255){var _inline_16_l=_inline_16_arg4_-_inline_16_arg6_[0],_inline_16_a=_inline_16_arg5_-_inline_16_arg6_[1],_inline_16_f=_inline_16_l*_inline_16_l+_inline_16_a*_inline_16_a;_inline_16_f<this_closestD2&&(this_closestD2=_inline_16_f,this_closestX=_inline_16_arg6_[0],this_closestY=_inline_16_arg6_[1])}}\\\",args:[{name:\\\"_inline_16_arg0_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_16_arg1_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_16_arg2_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_16_arg3_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_16_arg4_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_16_arg5_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_16_arg6_\\\",lvalue:!1,rvalue:!0,count:4}],thisVars:[\\\"this_closestD2\\\",\\\"this_closestX\\\",\\\"this_closestY\\\"],localVars:[\\\"_inline_16_a\\\",\\\"_inline_16_f\\\",\\\"_inline_16_l\\\"]},post:{body:\\\"{return[this_closestX,this_closestY,this_closestD2]}\\\",args:[],thisVars:[\\\"this_closestD2\\\",\\\"this_closestX\\\",\\\"this_closestY\\\"],localVars:[]},debug:!1,funcName:\\\"cwise\\\",blockSize:64});function l(t,e,r,n,i){this.coord=[t,e],this.id=r,this.value=n,this.distance=i}function c(t,e,r){this.gl=t,this.fbo=e,this.buffer=r,this._readTimeout=null;var n=this;this._readCallback=function(){n.gl&&(e.bind(),t.readPixels(0,0,e.shape[0],e.shape[1],t.RGBA,t.UNSIGNED_BYTE,n.buffer),n._readTimeout=null)}}var u=c.prototype;Object.defineProperty(u,\\\"shape\\\",{get:function(){return this.gl?this.fbo.shape.slice():[0,0]},set:function(t){if(this.gl){this.fbo.shape=t;var e=this.fbo.shape[0],r=this.fbo.shape[1];if(r*e*4>this.buffer.length){i.free(this.buffer);for(var n=this.buffer=i.mallocUint8(o(r*e*4)),a=0;a<r*e*4;++a)n[a]=255}return t}}}),u.begin=function(){var t=this.gl;this.shape;t&&(this.fbo.bind(),t.clearColor(1,1,1,1),t.clear(t.COLOR_BUFFER_BIT|t.DEPTH_BUFFER_BIT))},u.end=function(){var t=this.gl;t&&(t.bindFramebuffer(t.FRAMEBUFFER,null),this._readTimeout||clearTimeout(this._readTimeout),this._readTimeout=setTimeout(this._readCallback,1))},u.query=function(t,e,r){if(!this.gl)return null;var n=this.fbo.shape.slice();t|=0,e|=0,\\\"number\\\"!=typeof r&&(r=1);var i=0|Math.min(Math.max(t-r,0),n[0]),o=0|Math.min(Math.max(t+r,0),n[0]),c=0|Math.min(Math.max(e-r,0),n[1]),u=0|Math.min(Math.max(e+r,0),n[1]);if(o<=i||u<=c)return null;var f=[o-i,u-c],h=a(this.buffer,[f[0],f[1],4],[4,4*n[0],1],4*(i+n[0]*c)),p=s(h.hi(f[0],f[1],1),r,r),d=p[0],g=p[1];return d<0||Math.pow(this.radius,2)<p[2]?null:new l(d+i|0,g+c|0,h.get(d,g,0),[h.get(d,g,1),h.get(d,g,2),h.get(d,g,3)],Math.sqrt(p[2]))},u.dispose=function(){this.gl&&(this.fbo.dispose(),i.free(this.buffer),this.gl=null,this._readTimeout&&clearTimeout(this._readTimeout))}},{\\\"bit-twiddle\\\":85,\\\"cwise/lib/wrapper\\\":142,\\\"gl-fbo\\\":248,ndarray:445,\\\"typedarray-pool\\\":532}],300:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./lib/create-uniforms\\\"),i=t(\\\"./lib/create-attributes\\\"),a=t(\\\"./lib/reflect\\\"),o=t(\\\"./lib/shader-cache\\\"),s=t(\\\"./lib/runtime-reflect\\\"),l=t(\\\"./lib/GLError\\\");function c(t){this.gl=t,this.gl.lastAttribCount=0,this._vref=this._fref=this._relink=this.vertShader=this.fragShader=this.program=this.attributes=this.uniforms=this.types=null}var u=c.prototype;function f(t,e){return t.name<e.name?-1:1}u.bind=function(){var t;this.program||this._relink();var e=this.gl.getProgramParameter(this.program,this.gl.ACTIVE_ATTRIBUTES),r=this.gl.lastAttribCount;if(e>r)for(t=r;t<e;t++)this.gl.enableVertexAttribArray(t);else if(r>e)for(t=e;t<r;t++)this.gl.disableVertexAttribArray(t);this.gl.lastAttribCount=e,this.gl.useProgram(this.program)},u.dispose=function(){for(var t=this.gl.lastAttribCount,e=0;e<t;e++)this.gl.disableVertexAttribArray(e);this.gl.lastAttribCount=0,this._fref&&this._fref.dispose(),this._vref&&this._vref.dispose(),this.attributes=this.types=this.vertShader=this.fragShader=this.program=this._relink=this._fref=this._vref=null},u.update=function(t,e,r,c){if(!e||1===arguments.length){var u=t;t=u.vertex,e=u.fragment,r=u.uniforms,c=u.attributes}var h=this,p=h.gl,d=h._vref;h._vref=o.shader(p,p.VERTEX_SHADER,t),d&&d.dispose(),h.vertShader=h._vref.shader;var g=this._fref;if(h._fref=o.shader(p,p.FRAGMENT_SHADER,e),g&&g.dispose(),h.fragShader=h._fref.shader,!r||!c){var v=p.createProgram();if(p.attachShader(v,h.fragShader),p.attachShader(v,h.vertShader),p.linkProgram(v),!p.getProgramParameter(v,p.LINK_STATUS)){var m=p.getProgramInfoLog(v);throw new l(m,\\\"Error linking program:\\\"+m)}r=r||s.uniforms(p,v),c=c||s.attributes(p,v),p.deleteProgram(v)}(c=c.slice()).sort(f);var y,x=[],b=[],_=[];for(y=0;y<c.length;++y){var w=c[y];if(w.type.indexOf(\\\"mat\\\")>=0){for(var k=0|w.type.charAt(w.type.length-1),T=new Array(k),A=0;A<k;++A)T[A]=_.length,b.push(w.name+\\\"[\\\"+A+\\\"]\\\"),\\\"number\\\"==typeof w.location?_.push(w.location+A):Array.isArray(w.location)&&w.location.length===k&&\\\"number\\\"==typeof w.location[A]?_.push(0|w.location[A]):_.push(-1);x.push({name:w.name,type:w.type,locations:T})}else x.push({name:w.name,type:w.type,locations:[_.length]}),b.push(w.name),\\\"number\\\"==typeof w.location?_.push(0|w.location):_.push(-1)}var M=0;for(y=0;y<_.length;++y)if(_[y]<0){for(;_.indexOf(M)>=0;)M+=1;_[y]=M}var S=new Array(r.length);function E(){h.program=o.program(p,h._vref,h._fref,b,_);for(var t=0;t<r.length;++t)S[t]=p.getUniformLocation(h.program,r[t].name)}E(),h._relink=E,h.types={uniforms:a(r),attributes:a(c)},h.attributes=i(p,h,x,_),Object.defineProperty(h,\\\"uniforms\\\",n(p,h,r,S))},e.exports=function(t,e,r,n,i){var a=new c(t);return a.update(e,r,n,i),a}},{\\\"./lib/GLError\\\":301,\\\"./lib/create-attributes\\\":302,\\\"./lib/create-uniforms\\\":303,\\\"./lib/reflect\\\":304,\\\"./lib/runtime-reflect\\\":305,\\\"./lib/shader-cache\\\":306}],301:[function(t,e,r){function n(t,e,r){this.shortMessage=e||\\\"\\\",this.longMessage=r||\\\"\\\",this.rawError=t||\\\"\\\",this.message=\\\"gl-shader: \\\"+(e||t||\\\"\\\")+(r?\\\"\\\\n\\\"+r:\\\"\\\"),this.stack=(new Error).stack}n.prototype=new Error,n.prototype.name=\\\"GLError\\\",n.prototype.constructor=n,e.exports=n},{}],302:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,i){for(var a={},l=0,c=r.length;l<c;++l){var u=r[l],f=u.name,h=u.type,p=u.locations;switch(h){case\\\"bool\\\":case\\\"int\\\":case\\\"float\\\":o(t,e,p[0],i,1,a,f);break;default:if(h.indexOf(\\\"vec\\\")>=0){var d=h.charCodeAt(h.length-1)-48;if(d<2||d>4)throw new n(\\\"\\\",\\\"Invalid data type for attribute \\\"+f+\\\": \\\"+h);o(t,e,p[0],i,d,a,f)}else{if(!(h.indexOf(\\\"mat\\\")>=0))throw new n(\\\"\\\",\\\"Unknown data type for attribute \\\"+f+\\\": \\\"+h);var d=h.charCodeAt(h.length-1)-48;if(d<2||d>4)throw new n(\\\"\\\",\\\"Invalid data type for attribute \\\"+f+\\\": \\\"+h);s(t,e,p,i,d,a,f)}}}return a};var n=t(\\\"./GLError\\\");function i(t,e,r,n,i,a){this._gl=t,this._wrapper=e,this._index=r,this._locations=n,this._dimension=i,this._constFunc=a}var a=i.prototype;function o(t,e,r,n,a,o,s){for(var l=[\\\"gl\\\",\\\"v\\\"],c=[],u=0;u<a;++u)l.push(\\\"x\\\"+u),c.push(\\\"x\\\"+u);l.push(\\\"if(x0.length===void 0){return gl.vertexAttrib\\\"+a+\\\"f(v,\\\"+c.join()+\\\")}else{return gl.vertexAttrib\\\"+a+\\\"fv(v,x0)}\\\");var f=Function.apply(null,l),h=new i(t,e,r,n,a,f);Object.defineProperty(o,s,{set:function(e){return t.disableVertexAttribArray(n[r]),f(t,n[r],e),e},get:function(){return h},enumerable:!0})}function s(t,e,r,n,i,a,s){for(var l=new Array(i),c=new Array(i),u=0;u<i;++u)o(t,e,r[u],n,i,l,u),c[u]=l[u];Object.defineProperty(l,\\\"location\\\",{set:function(t){if(Array.isArray(t))for(var e=0;e<i;++e)c[e].location=t[e];else for(e=0;e<i;++e)c[e].location=t+e;return t},get:function(){for(var t=new Array(i),e=0;e<i;++e)t[e]=n[r[e]];return t},enumerable:!0}),l.pointer=function(e,a,o,s){e=e||t.FLOAT,a=!!a,o=o||i*i,s=s||0;for(var l=0;l<i;++l){var c=n[r[l]];t.vertexAttribPointer(c,i,e,a,o,s+l*i),t.enableVertexAttribArray(c)}};var f=new Array(i),h=t[\\\"vertexAttrib\\\"+i+\\\"fv\\\"];Object.defineProperty(a,s,{set:function(e){for(var a=0;a<i;++a){var o=n[r[a]];if(t.disableVertexAttribArray(o),Array.isArray(e[0]))h.call(t,o,e[a]);else{for(var s=0;s<i;++s)f[s]=e[i*a+s];h.call(t,o,f)}}return e},get:function(){return l},enumerable:!0})}a.pointer=function(t,e,r,n){var i=this._gl,a=this._locations[this._index];i.vertexAttribPointer(a,this._dimension,t||i.FLOAT,!!e,r||0,n||0),i.enableVertexAttribArray(a)},a.set=function(t,e,r,n){return this._constFunc(this._locations[this._index],t,e,r,n)},Object.defineProperty(a,\\\"location\\\",{get:function(){return this._locations[this._index]},set:function(t){return t!==this._locations[this._index]&&(this._locations[this._index]=0|t,this._wrapper.program=null),0|t}})},{\\\"./GLError\\\":301}],303:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./reflect\\\"),i=t(\\\"./GLError\\\");function a(t){return new Function(\\\"y\\\",\\\"return function(){return y}\\\")(t)}function o(t,e){for(var r=new Array(t),n=0;n<t;++n)r[n]=e;return r}e.exports=function(t,e,r,s){function l(t,e,r){switch(r){case\\\"bool\\\":case\\\"int\\\":case\\\"sampler2D\\\":case\\\"samplerCube\\\":return\\\"gl.uniform1i(locations[\\\"+e+\\\"],obj\\\"+t+\\\")\\\";case\\\"float\\\":return\\\"gl.uniform1f(locations[\\\"+e+\\\"],obj\\\"+t+\\\")\\\";default:var n=r.indexOf(\\\"vec\\\");if(!(0<=n&&n<=1&&r.length===4+n)){if(0===r.indexOf(\\\"mat\\\")&&4===r.length){var a=r.charCodeAt(r.length-1)-48;if(a<2||a>4)throw new i(\\\"\\\",\\\"Invalid uniform dimension type for matrix \\\"+name+\\\": \\\"+r);return\\\"gl.uniformMatrix\\\"+a+\\\"fv(locations[\\\"+e+\\\"],false,obj\\\"+t+\\\")\\\"}throw new i(\\\"\\\",\\\"Unknown uniform data type for \\\"+name+\\\": \\\"+r)}var a=r.charCodeAt(r.length-1)-48;if(a<2||a>4)throw new i(\\\"\\\",\\\"Invalid data type\\\");switch(r.charAt(0)){case\\\"b\\\":case\\\"i\\\":return\\\"gl.uniform\\\"+a+\\\"iv(locations[\\\"+e+\\\"],obj\\\"+t+\\\")\\\";case\\\"v\\\":return\\\"gl.uniform\\\"+a+\\\"fv(locations[\\\"+e+\\\"],obj\\\"+t+\\\")\\\";default:throw new i(\\\"\\\",\\\"Unrecognized data type for vector \\\"+name+\\\": \\\"+r)}}}function c(e){for(var n=[\\\"return function updateProperty(obj){\\\"],i=function t(e,r){if(\\\"object\\\"!=typeof r)return[[e,r]];var n=[];for(var i in r){var a=r[i],o=e;parseInt(i)+\\\"\\\"===i?o+=\\\"[\\\"+i+\\\"]\\\":o+=\\\".\\\"+i,\\\"object\\\"==typeof a?n.push.apply(n,t(o,a)):n.push([o,a])}return n}(\\\"\\\",e),a=0;a<i.length;++a){var o=i[a],c=o[0],u=o[1];s[u]&&n.push(l(c,u,r[u].type))}n.push(\\\"return obj}\\\");var f=new Function(\\\"gl\\\",\\\"locations\\\",n.join(\\\"\\\\n\\\"));return f(t,s)}function u(n,l,u){if(\\\"object\\\"==typeof u){var h=f(u);Object.defineProperty(n,l,{get:a(h),set:c(u),enumerable:!0,configurable:!1})}else s[u]?Object.defineProperty(n,l,{get:(p=u,new Function(\\\"gl\\\",\\\"wrapper\\\",\\\"locations\\\",\\\"return function(){return gl.getUniform(wrapper.program,locations[\\\"+p+\\\"])}\\\")(t,e,s)),set:c(u),enumerable:!0,configurable:!1}):n[l]=function(t){switch(t){case\\\"bool\\\":return!1;case\\\"int\\\":case\\\"sampler2D\\\":case\\\"samplerCube\\\":case\\\"float\\\":return 0;default:var e=t.indexOf(\\\"vec\\\");if(0<=e&&e<=1&&t.length===4+e){var r=t.charCodeAt(t.length-1)-48;if(r<2||r>4)throw new i(\\\"\\\",\\\"Invalid data type\\\");return\\\"b\\\"===t.charAt(0)?o(r,!1):o(r,0)}if(0===t.indexOf(\\\"mat\\\")&&4===t.length){var r=t.charCodeAt(t.length-1)-48;if(r<2||r>4)throw new i(\\\"\\\",\\\"Invalid uniform dimension type for matrix \\\"+name+\\\": \\\"+t);return o(r*r,0)}throw new i(\\\"\\\",\\\"Unknown uniform data type for \\\"+name+\\\": \\\"+t)}}(r[u].type);var p}function f(t){var e;if(Array.isArray(t)){e=new Array(t.length);for(var r=0;r<t.length;++r)u(e,r,t[r])}else for(var n in e={},t)u(e,n,t[n]);return e}var h=n(r,!0);return{get:a(f(h)),set:c(h),enumerable:!0,configurable:!0}}},{\\\"./GLError\\\":301,\\\"./reflect\\\":304}],304:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){for(var r={},n=0;n<t.length;++n)for(var i=t[n].name,a=i.split(\\\".\\\"),o=r,s=0;s<a.length;++s){var l=a[s].split(\\\"[\\\");if(l.length>1){l[0]in o||(o[l[0]]=[]),o=o[l[0]];for(var c=1;c<l.length;++c){var u=parseInt(l[c]);c<l.length-1||s<a.length-1?(u in o||(c<l.length-1?o[u]=[]:o[u]={}),o=o[u]):o[u]=e?n:t[n].type}}else s<a.length-1?(l[0]in o||(o[l[0]]={}),o=o[l[0]]):o[l[0]]=e?n:t[n].type}return r}},{}],305:[function(t,e,r){\\\"use strict\\\";r.uniforms=function(t,e){for(var r=t.getProgramParameter(e,t.ACTIVE_UNIFORMS),n=[],i=0;i<r;++i){var o=t.getActiveUniform(e,i);if(o){var s=a(t,o.type);if(o.size>1)for(var l=0;l<o.size;++l)n.push({name:o.name.replace(\\\"[0]\\\",\\\"[\\\"+l+\\\"]\\\"),type:s});else n.push({name:o.name,type:s})}}return n},r.attributes=function(t,e){for(var r=t.getProgramParameter(e,t.ACTIVE_ATTRIBUTES),n=[],i=0;i<r;++i){var o=t.getActiveAttrib(e,i);o&&n.push({name:o.name,type:a(t,o.type)})}return n};var n={FLOAT:\\\"float\\\",FLOAT_VEC2:\\\"vec2\\\",FLOAT_VEC3:\\\"vec3\\\",FLOAT_VEC4:\\\"vec4\\\",INT:\\\"int\\\",INT_VEC2:\\\"ivec2\\\",INT_VEC3:\\\"ivec3\\\",INT_VEC4:\\\"ivec4\\\",BOOL:\\\"bool\\\",BOOL_VEC2:\\\"bvec2\\\",BOOL_VEC3:\\\"bvec3\\\",BOOL_VEC4:\\\"bvec4\\\",FLOAT_MAT2:\\\"mat2\\\",FLOAT_MAT3:\\\"mat3\\\",FLOAT_MAT4:\\\"mat4\\\",SAMPLER_2D:\\\"sampler2D\\\",SAMPLER_CUBE:\\\"samplerCube\\\"},i=null;function a(t,e){if(!i){var r=Object.keys(n);i={};for(var a=0;a<r.length;++a){var o=r[a];i[t[o]]=n[o]}}return i[e]}},{}],306:[function(t,e,r){\\\"use strict\\\";r.shader=function(t,e,r){return u(t).getShaderReference(e,r)},r.program=function(t,e,r,n,i){return u(t).getProgram(e,r,n,i)};var n=t(\\\"./GLError\\\"),i=t(\\\"gl-format-compiler-error\\\"),a=new(\\\"undefined\\\"==typeof WeakMap?t(\\\"weakmap-shim\\\"):WeakMap),o=0;function s(t,e,r,n,i,a,o){this.id=t,this.src=e,this.type=r,this.shader=n,this.count=a,this.programs=[],this.cache=o}function l(t){this.gl=t,this.shaders=[{},{}],this.programs={}}s.prototype.dispose=function(){if(0==--this.count){for(var t=this.cache,e=t.gl,r=this.programs,n=0,i=r.length;n<i;++n){var a=t.programs[r[n]];a&&(delete t.programs[n],e.deleteProgram(a))}e.deleteShader(this.shader),delete t.shaders[this.type===e.FRAGMENT_SHADER|0][this.src]}};var c=l.prototype;function u(t){var e=a.get(t);return e||(e=new l(t),a.set(t,e)),e}c.getShaderReference=function(t,e){var r=this.gl,a=this.shaders[t===r.FRAGMENT_SHADER|0],l=a[e];if(l&&r.isShader(l.shader))l.count+=1;else{var c=function(t,e,r){var a=t.createShader(e);if(t.shaderSource(a,r),t.compileShader(a),!t.getShaderParameter(a,t.COMPILE_STATUS)){var o=t.getShaderInfoLog(a);try{var s=i(o,r,e)}catch(t){throw console.warn(\\\"Failed to format compiler error: \\\"+t),new n(o,\\\"Error compiling shader:\\\\n\\\"+o)}throw new n(o,s.short,s.long)}return a}(r,t,e);l=a[e]=new s(o++,e,t,c,[],1,this)}return l},c.getProgram=function(t,e,r,i){var a=[t.id,e.id,r.join(\\\":\\\"),i.join(\\\":\\\")].join(\\\"@\\\"),o=this.programs[a];return o&&this.gl.isProgram(o)||(this.programs[a]=o=function(t,e,r,i,a){var o=t.createProgram();t.attachShader(o,e),t.attachShader(o,r);for(var s=0;s<i.length;++s)t.bindAttribLocation(o,a[s],i[s]);if(t.linkProgram(o),!t.getProgramParameter(o,t.LINK_STATUS)){var l=t.getProgramInfoLog(o);throw new n(l,\\\"Error linking program: \\\"+l)}return o}(this.gl,t.shader,e.shader,r,i),t.programs.push(a),e.programs.push(a)),o}},{\\\"./GLError\\\":301,\\\"gl-format-compiler-error\\\":249,\\\"weakmap-shim\\\":542}],307:[function(t,e,r){\\\"use strict\\\";function n(t){this.plot=t,this.enable=[!0,!0,!1,!1],this.width=[1,1,1,1],this.color=[[0,0,0,1],[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.center=[1/0,1/0]}e.exports=function(t,e){var r=new n(t);return r.update(e),t.addOverlay(r),r};var i=n.prototype;i.update=function(t){t=t||{},this.enable=(t.enable||[!0,!0,!1,!1]).slice(),this.width=(t.width||[1,1,1,1]).slice(),this.color=(t.color||[[0,0,0,1],[0,0,0,1],[0,0,0,1],[0,0,0,1]]).map(function(t){return t.slice()}),this.center=(t.center||[1/0,1/0]).slice(),this.plot.setOverlayDirty()},i.draw=function(){var t=this.enable,e=this.width,r=this.color,n=this.center,i=this.plot,a=i.line,o=i.dataBox,s=i.viewBox;if(a.bind(),o[0]<=n[0]&&n[0]<=o[2]&&o[1]<=n[1]&&n[1]<=o[3]){var l=s[0]+(n[0]-o[0])/(o[2]-o[0])*(s[2]-s[0]),c=s[1]+(n[1]-o[1])/(o[3]-o[1])*(s[3]-s[1]);t[0]&&a.drawLine(l,c,s[0],c,e[0],r[0]),t[1]&&a.drawLine(l,c,l,s[1],e[1],r[1]),t[2]&&a.drawLine(l,c,s[2],c,e[2],r[2]),t[3]&&a.drawLine(l,c,l,s[3],e[3],r[3])}},i.dispose=function(){this.plot.removeOverlay(this)}},{}],308:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"glslify\\\"),i=t(\\\"gl-shader\\\"),a=n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec3 position, color;\\\\nattribute float weight;\\\\n\\\\nuniform mat4 model, view, projection;\\\\nuniform vec3 coordinates[3];\\\\nuniform vec4 colors[3];\\\\nuniform vec2 screenShape;\\\\nuniform float lineWidth;\\\\n\\\\nvarying vec4 fragColor;\\\\n\\\\nvoid main() {\\\\n  vec3 vertexPosition = mix(coordinates[0],\\\\n    mix(coordinates[2], coordinates[1], 0.5 * (position + 1.0)), abs(position));\\\\n\\\\n  vec4 clipPos = projection * view * model * vec4(vertexPosition, 1.0);\\\\n  vec2 clipOffset = (projection * view * model * vec4(color, 0.0)).xy;\\\\n  vec2 delta = weight * clipOffset * screenShape;\\\\n  vec2 lineOffset = normalize(vec2(delta.y, -delta.x)) / screenShape;\\\\n\\\\n  gl_Position   = vec4(clipPos.xy + clipPos.w * 0.5 * lineWidth * lineOffset, clipPos.z, clipPos.w);\\\\n  fragColor     = color.x * colors[0] + color.y * colors[1] + color.z * colors[2];\\\\n}\\\\n\\\"]),o=n([\\\"precision mediump float;\\\\n#define GLSLIFY 1\\\\n\\\\nvarying vec4 fragColor;\\\\n\\\\nvoid main() {\\\\n  gl_FragColor = fragColor;\\\\n}\\\"]);e.exports=function(t){return i(t,a,o,null,[{name:\\\"position\\\",type:\\\"vec3\\\"},{name:\\\"color\\\",type:\\\"vec3\\\"},{name:\\\"weight\\\",type:\\\"float\\\"}])}},{\\\"gl-shader\\\":300,glslify:404}],309:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-buffer\\\"),i=t(\\\"gl-vao\\\"),a=t(\\\"./shaders/index\\\");e.exports=function(t,e){var r=[];function o(t,e,n,i,a,o){var s=[t,e,n,0,0,0,1];s[i+3]=1,s[i]=a,r.push.apply(r,s),s[6]=-1,r.push.apply(r,s),s[i]=o,r.push.apply(r,s),r.push.apply(r,s),s[6]=1,r.push.apply(r,s),s[i]=a,r.push.apply(r,s)}o(0,0,0,0,0,1),o(0,0,0,1,0,1),o(0,0,0,2,0,1),o(1,0,0,1,-1,1),o(1,0,0,2,-1,1),o(0,1,0,0,-1,1),o(0,1,0,2,-1,1),o(0,0,1,0,-1,1),o(0,0,1,1,-1,1);var l=n(t,r),c=i(t,[{type:t.FLOAT,buffer:l,size:3,offset:0,stride:28},{type:t.FLOAT,buffer:l,size:3,offset:12,stride:28},{type:t.FLOAT,buffer:l,size:1,offset:24,stride:28}]),u=a(t);u.attributes.position.location=0,u.attributes.color.location=1,u.attributes.weight.location=2;var f=new s(t,l,c,u);return f.update(e),f};var o=[1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1];function s(t,e,r,n){this.gl=t,this.buffer=e,this.vao=r,this.shader=n,this.pixelRatio=1,this.bounds=[[-1e3,-1e3,-1e3],[1e3,1e3,1e3]],this.position=[0,0,0],this.lineWidth=[2,2,2],this.colors=[[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.enabled=[!0,!0,!0],this.drawSides=[!0,!0,!0],this.axes=null}var l=s.prototype,c=[0,0,0],u=[0,0,0],f=[0,0];l.isTransparent=function(){return!1},l.drawTransparent=function(t){},l.draw=function(t){var e=this.gl,r=this.vao,n=this.shader;r.bind(),n.bind();var i,a=t.model||o,s=t.view||o,l=t.projection||o;this.axes&&(i=this.axes.lastCubeProps.axis);for(var h=c,p=u,d=0;d<3;++d)i&&i[d]<0?(h[d]=this.bounds[0][d],p[d]=this.bounds[1][d]):(h[d]=this.bounds[1][d],p[d]=this.bounds[0][d]);f[0]=e.drawingBufferWidth,f[1]=e.drawingBufferHeight,n.uniforms.model=a,n.uniforms.view=s,n.uniforms.projection=l,n.uniforms.coordinates=[this.position,h,p],n.uniforms.colors=this.colors,n.uniforms.screenShape=f;for(d=0;d<3;++d)n.uniforms.lineWidth=this.lineWidth[d]*this.pixelRatio,this.enabled[d]&&(r.draw(e.TRIANGLES,6,6*d),this.drawSides[d]&&r.draw(e.TRIANGLES,12,18+12*d));r.unbind()},l.update=function(t){t&&(\\\"bounds\\\"in t&&(this.bounds=t.bounds),\\\"position\\\"in t&&(this.position=t.position),\\\"lineWidth\\\"in t&&(this.lineWidth=t.lineWidth),\\\"colors\\\"in t&&(this.colors=t.colors),\\\"enabled\\\"in t&&(this.enabled=t.enabled),\\\"drawSides\\\"in t&&(this.drawSides=t.drawSides))},l.dispose=function(){this.vao.dispose(),this.buffer.dispose(),this.shader.dispose()}},{\\\"./shaders/index\\\":308,\\\"gl-buffer\\\":240,\\\"gl-vao\\\":322}],310:[function(t,e,r){var n=t(\\\"glslify\\\"),i=n([\\\"precision highp float;\\\\n\\\\nprecision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nvec3 getOrthogonalVector(vec3 v) {\\\\n  // Return up-vector for only-z vector.\\\\n  // Return ax + by + cz = 0, a point that lies on the plane that has v as a normal and that isn't (0,0,0).\\\\n  // From the above if-statement we have ||a|| > 0  U  ||b|| > 0.\\\\n  // Assign z = 0, x = -b, y = a:\\\\n  // a*-b + b*a + c*0 = -ba + ba + 0 = 0\\\\n  if (v.x*v.x > v.z*v.z || v.y*v.y > v.z*v.z) {\\\\n    return normalize(vec3(-v.y, v.x, 0.0));\\\\n  } else {\\\\n    return normalize(vec3(0.0, v.z, -v.y));\\\\n  }\\\\n}\\\\n\\\\n// Calculate the tube vertex and normal at the given index.\\\\n//\\\\n// The returned vertex is for a tube ring with its center at origin, radius of length(d), pointing in the direction of d.\\\\n//\\\\n// Each tube segment is made up of a ring of vertices.\\\\n// These vertices are used to make up the triangles of the tube by connecting them together in the vertex array.\\\\n// The indexes of tube segments run from 0 to 8.\\\\n//\\\\nvec3 getTubePosition(vec3 d, float index, out vec3 normal) {\\\\n  float segmentCount = 8.0;\\\\n\\\\n  float angle = 2.0 * 3.14159 * (index / segmentCount);\\\\n\\\\n  vec3 u = getOrthogonalVector(d);\\\\n  vec3 v = normalize(cross(u, d));\\\\n\\\\n  vec3 x = u * cos(angle) * length(d);\\\\n  vec3 y = v * sin(angle) * length(d);\\\\n  vec3 v3 = x + y;\\\\n\\\\n  normal = normalize(v3);\\\\n\\\\n  return v3;\\\\n}\\\\n\\\\nattribute vec4 vector;\\\\nattribute vec4 color, position;\\\\nattribute vec2 uv;\\\\nuniform float vectorScale;\\\\nuniform float tubeScale;\\\\n\\\\nuniform mat4 model\\\\n           , view\\\\n           , projection\\\\n           , inverseModel;\\\\nuniform vec3 eyePosition\\\\n           , lightPosition;\\\\n\\\\nvarying vec3 f_normal\\\\n           , f_lightDirection\\\\n           , f_eyeDirection\\\\n           , f_data\\\\n           , f_position;\\\\nvarying vec4 f_color;\\\\nvarying vec2 f_uv;\\\\n\\\\nvoid main() {\\\\n  // Scale the vector magnitude to stay constant with\\\\n  // model & view changes.\\\\n  vec3 normal;\\\\n  vec3 XYZ = getTubePosition(mat3(model) * (tubeScale * vector.w * normalize(vector.xyz)), position.w, normal);\\\\n  vec4 tubePosition = model * vec4(position.xyz, 1.0) + vec4(XYZ, 0.0);\\\\n\\\\n  //Lighting geometry parameters\\\\n  vec4 cameraCoordinate = view * tubePosition;\\\\n  cameraCoordinate.xyz /= cameraCoordinate.w;\\\\n  f_lightDirection = lightPosition - cameraCoordinate.xyz;\\\\n  f_eyeDirection   = eyePosition - cameraCoordinate.xyz;\\\\n  f_normal = normalize((vec4(normal,0.0) * inverseModel).xyz);\\\\n\\\\n  // vec4 m_position  = model * vec4(tubePosition, 1.0);\\\\n  vec4 t_position  = view * tubePosition;\\\\n  gl_Position      = projection * t_position;\\\\n\\\\n  f_color          = color;\\\\n  f_data           = tubePosition.xyz;\\\\n  f_position       = position.xyz;\\\\n  f_uv             = uv;\\\\n}\\\\n\\\"]),a=n([\\\"#extension GL_OES_standard_derivatives : enable\\\\n\\\\nprecision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nfloat beckmannDistribution(float x, float roughness) {\\\\n  float NdotH = max(x, 0.0001);\\\\n  float cos2Alpha = NdotH * NdotH;\\\\n  float tan2Alpha = (cos2Alpha - 1.0) / cos2Alpha;\\\\n  float roughness2 = roughness * roughness;\\\\n  float denom = 3.141592653589793 * roughness2 * cos2Alpha * cos2Alpha;\\\\n  return exp(tan2Alpha / roughness2) / denom;\\\\n}\\\\n\\\\nfloat cookTorranceSpecular(\\\\n  vec3 lightDirection,\\\\n  vec3 viewDirection,\\\\n  vec3 surfaceNormal,\\\\n  float roughness,\\\\n  float fresnel) {\\\\n\\\\n  float VdotN = max(dot(viewDirection, surfaceNormal), 0.0);\\\\n  float LdotN = max(dot(lightDirection, surfaceNormal), 0.0);\\\\n\\\\n  //Half angle vector\\\\n  vec3 H = normalize(lightDirection + viewDirection);\\\\n\\\\n  //Geometric term\\\\n  float NdotH = max(dot(surfaceNormal, H), 0.0);\\\\n  float VdotH = max(dot(viewDirection, H), 0.000001);\\\\n  float LdotH = max(dot(lightDirection, H), 0.000001);\\\\n  float G1 = (2.0 * NdotH * VdotN) / VdotH;\\\\n  float G2 = (2.0 * NdotH * LdotN) / LdotH;\\\\n  float G = min(1.0, min(G1, G2));\\\\n  \\\\n  //Distribution term\\\\n  float D = beckmannDistribution(NdotH, roughness);\\\\n\\\\n  //Fresnel term\\\\n  float F = pow(1.0 - VdotN, fresnel);\\\\n\\\\n  //Multiply terms and done\\\\n  return  G * F * D / max(3.14159265 * VdotN, 0.000001);\\\\n}\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nuniform vec3 clipBounds[2];\\\\nuniform float roughness\\\\n            , fresnel\\\\n            , kambient\\\\n            , kdiffuse\\\\n            , kspecular\\\\n            , opacity;\\\\nuniform sampler2D texture;\\\\n\\\\nvarying vec3 f_normal\\\\n           , f_lightDirection\\\\n           , f_eyeDirection\\\\n           , f_data\\\\n           , f_position;\\\\nvarying vec4 f_color;\\\\nvarying vec2 f_uv;\\\\n\\\\nvoid main() {\\\\n  if (outOfRange(clipBounds[0], clipBounds[1], f_position)) discard;\\\\n  vec3 N = normalize(f_normal);\\\\n  vec3 L = normalize(f_lightDirection);\\\\n  vec3 V = normalize(f_eyeDirection);\\\\n\\\\n  if(gl_FrontFacing) {\\\\n    N = -N;\\\\n  }\\\\n\\\\n  float specular = min(1.0, max(0.0, cookTorranceSpecular(L, V, N, roughness, fresnel)));\\\\n  float diffuse  = min(kambient + kdiffuse * max(dot(N, L), 0.0), 1.0);\\\\n\\\\n  vec4 surfaceColor = f_color * texture2D(texture, f_uv);\\\\n  vec4 litColor = surfaceColor.a * vec4(diffuse * surfaceColor.rgb + kspecular * vec3(1,1,1) * specular,  1.0);\\\\n\\\\n  gl_FragColor = litColor * opacity;\\\\n}\\\\n\\\"]),o=n([\\\"precision highp float;\\\\n\\\\nprecision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nvec3 getOrthogonalVector(vec3 v) {\\\\n  // Return up-vector for only-z vector.\\\\n  // Return ax + by + cz = 0, a point that lies on the plane that has v as a normal and that isn't (0,0,0).\\\\n  // From the above if-statement we have ||a|| > 0  U  ||b|| > 0.\\\\n  // Assign z = 0, x = -b, y = a:\\\\n  // a*-b + b*a + c*0 = -ba + ba + 0 = 0\\\\n  if (v.x*v.x > v.z*v.z || v.y*v.y > v.z*v.z) {\\\\n    return normalize(vec3(-v.y, v.x, 0.0));\\\\n  } else {\\\\n    return normalize(vec3(0.0, v.z, -v.y));\\\\n  }\\\\n}\\\\n\\\\n// Calculate the tube vertex and normal at the given index.\\\\n//\\\\n// The returned vertex is for a tube ring with its center at origin, radius of length(d), pointing in the direction of d.\\\\n//\\\\n// Each tube segment is made up of a ring of vertices.\\\\n// These vertices are used to make up the triangles of the tube by connecting them together in the vertex array.\\\\n// The indexes of tube segments run from 0 to 8.\\\\n//\\\\nvec3 getTubePosition(vec3 d, float index, out vec3 normal) {\\\\n  float segmentCount = 8.0;\\\\n\\\\n  float angle = 2.0 * 3.14159 * (index / segmentCount);\\\\n\\\\n  vec3 u = getOrthogonalVector(d);\\\\n  vec3 v = normalize(cross(u, d));\\\\n\\\\n  vec3 x = u * cos(angle) * length(d);\\\\n  vec3 y = v * sin(angle) * length(d);\\\\n  vec3 v3 = x + y;\\\\n\\\\n  normal = normalize(v3);\\\\n\\\\n  return v3;\\\\n}\\\\n\\\\nattribute vec4 vector;\\\\nattribute vec4 position;\\\\nattribute vec4 id;\\\\n\\\\nuniform mat4 model, view, projection;\\\\nuniform float tubeScale;\\\\n\\\\nvarying vec3 f_position;\\\\nvarying vec4 f_id;\\\\n\\\\nvoid main() {\\\\n  vec3 normal;\\\\n  vec3 XYZ = getTubePosition(mat3(model) * (tubeScale * vector.w * normalize(vector.xyz)), position.w, normal);\\\\n  vec4 tubePosition = model * vec4(position.xyz, 1.0) + vec4(XYZ, 0.0);\\\\n\\\\n  gl_Position = projection * view * tubePosition;\\\\n  f_id        = id;\\\\n  f_position  = position.xyz;\\\\n}\\\\n\\\"]),s=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nuniform vec3  clipBounds[2];\\\\nuniform float pickId;\\\\n\\\\nvarying vec3 f_position;\\\\nvarying vec4 f_id;\\\\n\\\\nvoid main() {\\\\n  if (outOfRange(clipBounds[0], clipBounds[1], f_position)) discard;\\\\n\\\\n  gl_FragColor = vec4(pickId, f_id.xyz);\\\\n}\\\"]);r.meshShader={vertex:i,fragment:a,attributes:[{name:\\\"position\\\",type:\\\"vec4\\\"},{name:\\\"normal\\\",type:\\\"vec3\\\"},{name:\\\"color\\\",type:\\\"vec4\\\"},{name:\\\"uv\\\",type:\\\"vec2\\\"},{name:\\\"vector\\\",type:\\\"vec4\\\"}]},r.pickShader={vertex:o,fragment:s,attributes:[{name:\\\"position\\\",type:\\\"vec4\\\"},{name:\\\"id\\\",type:\\\"vec4\\\"},{name:\\\"vector\\\",type:\\\"vec4\\\"}]}},{glslify:404}],311:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-shader\\\"),i=t(\\\"gl-buffer\\\"),a=t(\\\"gl-vao\\\"),o=t(\\\"gl-texture2d\\\"),s=t(\\\"normals\\\"),l=t(\\\"gl-mat4/multiply\\\"),c=t(\\\"gl-mat4/invert\\\"),u=t(\\\"ndarray\\\"),f=t(\\\"colormap\\\"),h=t(\\\"simplicial-complex-contour\\\"),p=t(\\\"typedarray-pool\\\"),d=t(\\\"./shaders\\\"),g=d.meshShader,v=d.pickShader,m=[1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1];function y(t,e,r,n,i,a,o,s,l,c,u,f,h,p,d,g,v,y,x,b,_,w,k,T){this.gl=t,this.cells=[],this.positions=[],this.intensity=[],this.texture=e,this.dirty=!0,this.triShader=r,this.pickShader=n,this.trianglePositions=i,this.triangleVectors=a,this.triangleColors=s,this.triangleNormals=c,this.triangleUVs=l,this.triangleIds=o,this.triangleVAO=u,this.triangleCount=0,this.lineWidth=1,this.edgePositions=f,this.edgeColors=p,this.edgeUVs=d,this.edgeIds=h,this.edgeVAO=g,this.edgeCount=0,this.pointPositions=v,this.pointColors=x,this.pointUVs=b,this.pointSizes=_,this.pointIds=y,this.pointVAO=w,this.pointCount=0,this.contourLineWidth=1,this.contourPositions=k,this.contourVAO=T,this.contourCount=0,this.contourColor=[0,0,0],this.contourEnable=!1,this.pickId=1,this.bounds=[[1/0,1/0,1/0],[-1/0,-1/0,-1/0]],this.clipBounds=[[-1/0,-1/0,-1/0],[1/0,1/0,1/0]],this.lightPosition=[1e5,1e5,0],this.ambientLight=.8,this.diffuseLight=.8,this.specularLight=2,this.roughness=.5,this.fresnel=1.5,this.opacity=1,this.tubeScale=1,this._model=m,this._view=m,this._projection=m,this._resolution=[1,1],this.pixelRatio=1}var x=y.prototype;function b(t){var e=n(t,v.vertex,v.fragment,null,v.attributes);return e.attributes.position.location=0,e.attributes.id.location=1,e.attributes.vector.location=5,e}x.isOpaque=function(){return this.opacity>=1},x.isTransparent=function(){return this.opacity<1},x.pickSlots=1,x.setPickBase=function(t){this.pickId=t},x.highlight=function(t){if(t&&this.contourEnable){for(var e=h(this.cells,this.intensity,t.intensity),r=e.cells,n=e.vertexIds,i=e.vertexWeights,a=r.length,o=p.mallocFloat32(6*a),s=0,l=0;l<a;++l)for(var c=r[l],u=0;u<2;++u){var f=c[0];2===c.length&&(f=c[u]);for(var d=n[f][0],g=n[f][1],v=i[f],m=1-v,y=this.positions[d],x=this.positions[g],b=0;b<3;++b)o[s++]=v*y[b]+m*x[b]}this.contourCount=s/3|0,this.contourPositions.update(o.subarray(0,s)),p.free(o)}else this.contourCount=0},x.update=function(t){t=t||{};var e=this.gl;this.dirty=!0,\\\"contourEnable\\\"in t&&(this.contourEnable=t.contourEnable),\\\"contourColor\\\"in t&&(this.contourColor=t.contourColor),\\\"lineWidth\\\"in t&&(this.lineWidth=t.lineWidth),\\\"lightPosition\\\"in t&&(this.lightPosition=t.lightPosition),\\\"opacity\\\"in t&&(this.opacity=t.opacity),\\\"ambient\\\"in t&&(this.ambientLight=t.ambient),\\\"diffuse\\\"in t&&(this.diffuseLight=t.diffuse),\\\"specular\\\"in t&&(this.specularLight=t.specular),\\\"roughness\\\"in t&&(this.roughness=t.roughness),\\\"fresnel\\\"in t&&(this.fresnel=t.fresnel),t.texture?(this.texture.dispose(),this.texture=o(e,t.texture)):t.colormap&&(this.texture.shape=[256,256],this.texture.minFilter=e.LINEAR_MIPMAP_LINEAR,this.texture.magFilter=e.LINEAR,this.texture.setPixels(function(t){for(var e=f({colormap:t,nshades:256,format:\\\"rgba\\\"}),r=new Uint8Array(1024),n=0;n<256;++n){for(var i=e[n],a=0;a<3;++a)r[4*n+a]=i[a];r[4*n+3]=255*i[3]}return u(r,[256,256,4],[4,0,1])}(t.colormap)),this.texture.generateMipmap());var r=t.cells,n=t.positions,i=t.vectors;if(n&&r&&i){void 0!==t.tubeScale&&(this.tubeScale=t.tubeScale);var a=[],l=[],c=[],h=[],p=[],d=[],g=[],v=[],m=[],y=[],x=[],b=[],_=[],w=[],k=[];this.cells=r,this.positions=n,this.vectors=i;var T=t.vertexNormals,A=t.cellNormals,M=void 0===t.vertexNormalsEpsilon?1e-6:t.vertexNormalsEpsilon,S=void 0===t.faceNormalsEpsilon?1e-6:t.faceNormalsEpsilon;t.useFacetNormals&&!A&&(A=s.faceNormals(r,n,S)),A||T||(T=s.vertexNormals(r,n,M));var E=t.vertexColors,C=t.cellColors,L=t.meshColor||[1,1,1,1],z=t.vertexUVs,O=t.vertexIntensity,I=t.cellUVs,D=t.cellIntensity,P=1/0,R=-1/0;if(!z&&!I)if(O)if(t.vertexIntensityBounds)P=+t.vertexIntensityBounds[0],R=+t.vertexIntensityBounds[1];else for(var F=0;F<O.length;++F){var B=O[F];P=Math.min(P,B),R=Math.max(R,B)}else if(D)for(F=0;F<D.length;++F){B=D[F];P=Math.min(P,B),R=Math.max(R,B)}else for(F=0;F<n.length;++F){B=n[F][2];P=Math.min(P,B),R=Math.max(R,B)}this.intensity=O||(D?function(t,e,r){for(var n=new Array(e),i=0;i<e;++i)n[i]=0;var a=t.length;for(i=0;i<a;++i)for(var o=t[i],s=0;s<o.length;++s)n[o[s]]=r[i];return n}(r,n.length,D):function(t){for(var e=t.length,r=new Array(e),n=0;n<e;++n)r[n]=t[n][2];return r}(n));var N=t.pointSizes,j=t.pointSize||1;this.bounds=[[1/0,1/0,1/0],[-1/0,-1/0,-1/0]];for(F=0;F<n.length;++F)for(var V=n[F],U=0;U<3;++U)!isNaN(V[U])&&isFinite(V[U])&&(this.bounds[0][U]=Math.min(this.bounds[0][U],V[U]),this.bounds[1][U]=Math.max(this.bounds[1][U],V[U]));var H=0,q=0,G=0;t:for(F=0;F<r.length;++F){var Y=r[F];switch(Y.length){case 1:for(V=n[X=Y[0]],U=0;U<3;++U)if(isNaN(V[U])||!isFinite(V[U]))continue t;x.push(V[0],V[1],V[2],V[3]),3===(Z=E?E[X]:C?C[F]:L).length?b.push(Z[0],Z[1],Z[2],1):b.push(Z[0],Z[1],Z[2],Z[3]),$=z?z[X]:O?[(O[X]-P)/(R-P),0]:I?I[F]:D?[(D[F]-P)/(R-P),0]:[(V[2]-P)/(R-P),0],_.push($[0],$[1]),N?w.push(N[X]):w.push(j),k.push(F),G+=1;break;case 2:for(U=0;U<2;++U){V=n[X=Y[U]];for(var W=0;W<3;++W)if(isNaN(V[W])||!isFinite(V[W]))continue t}for(U=0;U<2;++U){V=n[X=Y[U]];g.push(V[0],V[1],V[2]),3===(Z=E?E[X]:C?C[F]:L).length?v.push(Z[0],Z[1],Z[2],1):v.push(Z[0],Z[1],Z[2],Z[3]),$=z?z[X]:O?[(O[X]-P)/(R-P),0]:I?I[F]:D?[(D[F]-P)/(R-P),0]:[(V[2]-P)/(R-P),0],m.push($[0],$[1]),y.push(F)}q+=1;break;case 3:for(U=0;U<3;++U)for(V=n[X=Y[U]],W=0;W<3;++W)if(isNaN(V[W])||!isFinite(V[W]))continue t;for(U=0;U<3;++U){var X;V=n[X=Y[2-U]];a.push(V[0],V[1],V[2],V[3]);var Z,$,J,K=i[X];l.push(K[0],K[1],K[2],K[3]),3===(Z=E?E[X]:C?C[F]:L).length?c.push(Z[0],Z[1],Z[2],1):c.push(Z[0],Z[1],Z[2],Z[3]),$=z?z[X]:O?[(O[X]-P)/(R-P),0]:I?I[F]:D?[(D[F]-P)/(R-P),0]:[(V[2]-P)/(R-P),0],p.push($[0],$[1]),J=T?T[X]:A[F],h.push(J[0],J[1],J[2]),d.push(F)}H+=1}}this.pointCount=G,this.edgeCount=q,this.triangleCount=H,this.pointPositions.update(x),this.pointColors.update(b),this.pointUVs.update(_),this.pointSizes.update(w),this.pointIds.update(new Uint32Array(k)),this.edgePositions.update(g),this.edgeColors.update(v),this.edgeUVs.update(m),this.edgeIds.update(new Uint32Array(y)),this.trianglePositions.update(a),this.triangleVectors.update(l),this.triangleColors.update(c),this.triangleUVs.update(p),this.triangleNormals.update(h),this.triangleIds.update(new Uint32Array(d))}},x.drawTransparent=x.draw=function(t){t=t||{};for(var e=this.gl,r=t.model||m,n=t.view||m,i=t.projection||m,a=[[-1e6,-1e6,-1e6],[1e6,1e6,1e6]],o=0;o<3;++o)a[0][o]=Math.max(a[0][o],this.clipBounds[0][o]),a[1][o]=Math.min(a[1][o],this.clipBounds[1][o]);var s={model:r,view:n,projection:i,inverseModel:m.slice(),clipBounds:a,kambient:this.ambientLight,kdiffuse:this.diffuseLight,kspecular:this.specularLight,roughness:this.roughness,fresnel:this.fresnel,eyePosition:[0,0,0],lightPosition:[0,0,0],opacity:this.opacity,tubeScale:this.tubeScale,contourColor:this.contourColor,texture:0};s.inverseModel=c(s.inverseModel,s.model),e.disable(e.CULL_FACE),this.texture.bind(0);var u=new Array(16);l(u,s.view,s.model),l(u,s.projection,u),c(u,u);for(o=0;o<3;++o)s.eyePosition[o]=u[12+o]/u[15];var f=u[15];for(o=0;o<3;++o)f+=this.lightPosition[o]*u[4*o+3];for(o=0;o<3;++o){for(var h=u[12+o],p=0;p<3;++p)h+=u[4*p+o]*this.lightPosition[p];s.lightPosition[o]=h/f}if(this.triangleCount>0){var d=this.triShader;d.bind(),d.uniforms=s,this.triangleVAO.bind(),e.drawArrays(e.TRIANGLES,0,3*this.triangleCount),this.triangleVAO.unbind()}},x.drawPick=function(t){t=t||{};for(var e=this.gl,r=t.model||m,n=t.view||m,i=t.projection||m,a=[[-1e6,-1e6,-1e6],[1e6,1e6,1e6]],o=0;o<3;++o)a[0][o]=Math.max(a[0][o],this.clipBounds[0][o]),a[1][o]=Math.min(a[1][o],this.clipBounds[1][o]);this._model=[].slice.call(r),this._view=[].slice.call(n),this._projection=[].slice.call(i),this._resolution=[e.drawingBufferWidth,e.drawingBufferHeight];var s={model:r,view:n,projection:i,clipBounds:a,tubeScale:this.tubeScale,pickId:this.pickId/255},l=this.pickShader;l.bind(),l.uniforms=s,this.triangleCount>0&&(this.triangleVAO.bind(),e.drawArrays(e.TRIANGLES,0,3*this.triangleCount),this.triangleVAO.unbind()),this.edgeCount>0&&(this.edgeVAO.bind(),e.lineWidth(this.lineWidth*this.pixelRatio),e.drawArrays(e.LINES,0,2*this.edgeCount),this.edgeVAO.unbind())},x.pick=function(t){if(!t)return null;if(t.id!==this.pickId)return null;var e=t.value[0]+256*t.value[1]+65536*t.value[2],r=this.cells[e],n=this.positions[r[1]].slice(0,3);return{index:e,position:n,intensity:this.intensity[r[1]],velocity:this.vectors[r[1]].slice(0,3),divergence:this.vectors[r[1]][3],dataCoordinate:n}},x.dispose=function(){this.texture.dispose(),this.triShader.dispose(),this.pickShader.dispose(),this.triangleVAO.dispose(),this.trianglePositions.dispose(),this.triangleVectors.dispose(),this.triangleColors.dispose(),this.triangleUVs.dispose(),this.triangleNormals.dispose(),this.triangleIds.dispose(),this.edgeVAO.dispose(),this.edgePositions.dispose(),this.edgeColors.dispose(),this.edgeUVs.dispose(),this.edgeIds.dispose(),this.pointVAO.dispose(),this.pointPositions.dispose(),this.pointColors.dispose(),this.pointUVs.dispose(),this.pointSizes.dispose(),this.pointIds.dispose(),this.contourVAO.dispose(),this.contourPositions.dispose()},e.exports=function(t,e){1===arguments.length&&(t=(e=t).gl);var r=e.triShader||function(t){var e=n(t,g.vertex,g.fragment,null,g.attributes);return e.attributes.position.location=0,e.attributes.color.location=2,e.attributes.uv.location=3,e.attributes.vector.location=5,e}(t),s=b(t),l=o(t,u(new Uint8Array([255,255,255,255]),[1,1,4]));l.generateMipmap(),l.minFilter=t.LINEAR_MIPMAP_LINEAR,l.magFilter=t.LINEAR;var c=i(t),f=i(t),h=i(t),p=i(t),d=i(t),v=i(t),m=a(t,[{buffer:c,type:t.FLOAT,size:4},{buffer:v,type:t.UNSIGNED_BYTE,size:4,normalized:!0},{buffer:h,type:t.FLOAT,size:4},{buffer:p,type:t.FLOAT,size:2},{buffer:d,type:t.FLOAT,size:3},{buffer:f,type:t.FLOAT,size:4}]),x=i(t),_=i(t),w=i(t),k=i(t),T=a(t,[{buffer:x,type:t.FLOAT,size:3},{buffer:k,type:t.UNSIGNED_BYTE,size:4,normalized:!0},{buffer:_,type:t.FLOAT,size:4},{buffer:w,type:t.FLOAT,size:2}]),A=i(t),M=i(t),S=i(t),E=i(t),C=i(t),L=a(t,[{buffer:A,type:t.FLOAT,size:3},{buffer:C,type:t.UNSIGNED_BYTE,size:4,normalized:!0},{buffer:M,type:t.FLOAT,size:4},{buffer:S,type:t.FLOAT,size:2},{buffer:E,type:t.FLOAT,size:1}]),z=i(t),O=new y(t,l,r,s,c,f,v,h,p,d,m,x,k,_,w,T,A,C,M,S,E,L,z,a(t,[{buffer:z,type:t.FLOAT,size:3}]));return O.update(e),O}},{\\\"./shaders\\\":310,colormap:119,\\\"gl-buffer\\\":240,\\\"gl-mat4/invert\\\":264,\\\"gl-mat4/multiply\\\":266,\\\"gl-shader\\\":300,\\\"gl-texture2d\\\":317,\\\"gl-vao\\\":322,ndarray:445,normals:448,\\\"simplicial-complex-contour\\\":505,\\\"typedarray-pool\\\":532}],312:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-vec3\\\"),i=t(\\\"gl-vec4\\\"),a=function(t,e,r,a){for(var o=0,s=0;s<t.length;s++)for(var l=t[s].velocities,c=0;c<l.length;c++){var u=n.length(l[c]);u>o&&(o=u)}var f=t.map(function(t){return function(t,e,r,a){var o,s,l,c=t.points,u=t.velocities,f=t.divergences;n.set(n.create(),0,1,0),n.create(),n.create();n.create();for(var h=[],p=[],d=[],g=[],v=[],m=[],y=0,x=0,b=i.create(),_=i.create(),w=0;w<c.length;w++){o=c[w],s=u[w],l=f[w],0===e&&(l=.05*r),x=n.length(s)/a,b=i.create(),n.copy(b,s),b[3]=l;for(var k=0;k<8;k++)v[k]=[o[0],o[1],o[2],k];if(g.length>0)for(k=0;k<8;k++){var T=(k+1)%8;h.push(g[k],v[k],v[T],v[T],g[T],g[k]),d.push(_,b,b,b,_,_),m.push(y,x,x,x,y,y),p.push([h.length-6,h.length-5,h.length-4],[h.length-3,h.length-2,h.length-1])}var A=g;g=v,v=A,A=_,_=b,b=A,A=y,y=x,x=A}return{positions:h,cells:p,vectors:d,vertexIntensity:m}}(t,r,a,o)}),h=[],p=[],d=[],g=[];for(s=0;s<f.length;s++){var v=f[s],m=h.length;h=h.concat(v.positions),d=d.concat(v.vectors),g=g.concat(v.vertexIntensity);for(c=0;c<v.cells.length;c++){var y=v.cells[c],x=[];p.push(x);for(var b=0;b<y.length;b++)x.push(y[b]+m)}}return{positions:h,cells:p,vectors:d,vertexIntensity:g,colormap:e}},o=function(t,e){var r=n.create(),i=1e-4;n.add(r,t,[i,0,0]);var a=this.getVelocity(r);n.subtract(a,a,e),n.scale(a,a,1e4),n.add(r,t,[0,i,0]);var o=this.getVelocity(r);n.subtract(o,o,e),n.scale(o,o,1e4),n.add(r,t,[0,0,i]);var s=this.getVelocity(r);return n.subtract(s,s,e),n.scale(s,s,1e4),n.add(r,a,o),n.add(r,r,s),r},s=function(t){return h(t,this.vectors,this.meshgrid,this.clampBorders)},l=function(t,e){for(var r=0;r<t.length;r++){var n=t[r];if(n===e)return r;if(n>e)return r-1}return r},c=n.create(),u=n.create(),f=function(t,e,r){return t<e?e:t>r?r:t},h=function(t,e,r,i){var a=t[0],o=t[1],s=t[2],h=r[0].length,p=r[1].length,d=r[2].length,g=l(r[0],a),v=l(r[1],o),m=l(r[2],s),y=g+1,x=v+1,b=m+1;if(r[0][g]===a&&(y=g),r[1][v]===o&&(x=v),r[2][m]===s&&(b=m),i&&(g=f(g,0,h-1),y=f(y,0,h-1),v=f(v,0,p-1),x=f(x,0,p-1),m=f(m,0,d-1),b=f(b,0,d-1)),g<0||v<0||m<0||y>=h||x>=p||b>=d)return n.create();var _=(a-r[0][g])/(r[0][y]-r[0][g]),w=(o-r[1][v])/(r[1][x]-r[1][v]),k=(s-r[2][m])/(r[2][b]-r[2][m]);(_<0||_>1||isNaN(_))&&(_=0),(w<0||w>1||isNaN(w))&&(w=0),(k<0||k>1||isNaN(k))&&(k=0);var T=m*h*p,A=b*h*p,M=v*h,S=x*h,E=g,C=y,L=e[M+T+E],z=e[M+T+C],O=e[S+T+E],I=e[S+T+C],D=e[M+A+E],P=e[M+A+C],R=e[S+A+E],F=e[S+A+C],B=n.create();return n.lerp(B,L,z,_),n.lerp(c,O,I,_),n.lerp(B,B,c,w),n.lerp(c,D,P,_),n.lerp(u,R,F,_),n.lerp(c,c,u,w),n.lerp(B,B,c,k),B},p=function(t){var e=1/0;t.sort(function(t,e){return t-e});for(var r=1;r<t.length;r++){var n=Math.abs(t[r]-t[r-1]);n<e&&(e=n)}return e};e.exports=function(t,e){var r=t.startingPositions,i=t.maxLength||1e3,l=t.tubeSize||1,c=t.absoluteTubeSize;t.getDivergence||(t.getDivergence=o),t.getVelocity||(t.getVelocity=s),void 0===t.clampBorders&&(t.clampBorders=!0);var u=[],f=e[0][0],h=e[0][1],d=e[0][2],g=e[1][0],v=e[1][1],m=e[1][2],y=function(t,e){var r=e[0],n=e[1],i=e[2];return r>=f&&r<=g&&n>=h&&n<=v&&i>=d&&i<=m},x=10*n.distance(e[0],e[1])/i,b=x*x,_=1,w=0;n.create();r.length>=2&&(_=function(t){for(var e=[],r=[],n=[],i={},a={},o={},s=0;s<t.length;s++){var l=t[s],c=l[0],u=l[1],f=l[2];i[c]||(e.push(c),i[c]=!0),a[u]||(r.push(u),a[u]=!0),o[f]||(n.push(f),o[f]=!0)}var h=p(e),d=p(r),g=p(n),v=Math.min(h,d,g);return isFinite(v)?v:1}(r));for(var k=0;k<r.length;k++){var T=n.create();n.copy(T,r[k]);var A=[T],M=[],S=t.getVelocity(T),E=T;M.push(S);var C=[],L=t.getDivergence(T,S);(D=n.length(L))>w&&!isNaN(D)&&isFinite(D)&&(w=D),C.push(D),u.push({points:A,velocities:M,divergences:C});for(var z=0;z<100*i&&A.length<i&&y(0,T);){z++;var O=n.clone(S),I=n.squaredLength(O);if(0===I)break;if(I>b&&n.scale(O,O,x/Math.sqrt(I)),n.add(O,O,T),S=t.getVelocity(O),n.squaredDistance(E,O)-b>-1e-4*b){A.push(O),E=O,M.push(S);L=t.getDivergence(O,S);(D=n.length(L))>w&&!isNaN(D)&&isFinite(D)&&(w=D),C.push(D)}T=O}}for(k=0;k<C.length;k++){var D=C[k];!isNaN(D)&&isFinite(D)||(C[k]=w)}var P=a(u,t.colormap,w,_);return c?P.tubeScale=c:(0===w&&(w=1),P.tubeScale=.5*l*_/w),P},e.exports.createTubeMesh=t(\\\"./lib/tubemesh\\\")},{\\\"./lib/tubemesh\\\":311,\\\"gl-vec3\\\":341,\\\"gl-vec4\\\":377}],313:[function(t,e,r){var n=t(\\\"gl-shader\\\"),i=t(\\\"glslify\\\"),a=i([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec4 uv;\\\\nattribute vec3 f;\\\\nattribute vec3 normal;\\\\n\\\\nuniform vec3 objectOffset;\\\\nuniform mat4 model, view, projection, inverseModel;\\\\nuniform vec3 lightPosition, eyePosition;\\\\nuniform sampler2D colormap;\\\\n\\\\nvarying float value, kill;\\\\nvarying vec3 worldCoordinate;\\\\nvarying vec2 planeCoordinate;\\\\nvarying vec3 lightDirection, eyeDirection, surfaceNormal;\\\\nvarying vec4 vColor;\\\\n\\\\nvoid main() {\\\\n  vec3 localCoordinate = vec3(uv.zw, f.x);\\\\n  worldCoordinate = objectOffset + localCoordinate;\\\\n  vec4 worldPosition = model * vec4(worldCoordinate, 1.0);\\\\n  vec4 clipPosition = projection * view * worldPosition;\\\\n  gl_Position = clipPosition;\\\\n  kill = f.y;\\\\n  value = f.z;\\\\n  planeCoordinate = uv.xy;\\\\n\\\\n  vColor = texture2D(colormap, vec2(value, value));\\\\n\\\\n  //Lighting geometry parameters\\\\n  vec4 cameraCoordinate = view * worldPosition;\\\\n  cameraCoordinate.xyz /= cameraCoordinate.w;\\\\n  lightDirection = lightPosition - cameraCoordinate.xyz;\\\\n  eyeDirection   = eyePosition - cameraCoordinate.xyz;\\\\n  surfaceNormal  = normalize((vec4(normal,0) * inverseModel).xyz);\\\\n}\\\\n\\\"]),o=i([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nfloat beckmannDistribution(float x, float roughness) {\\\\n  float NdotH = max(x, 0.0001);\\\\n  float cos2Alpha = NdotH * NdotH;\\\\n  float tan2Alpha = (cos2Alpha - 1.0) / cos2Alpha;\\\\n  float roughness2 = roughness * roughness;\\\\n  float denom = 3.141592653589793 * roughness2 * cos2Alpha * cos2Alpha;\\\\n  return exp(tan2Alpha / roughness2) / denom;\\\\n}\\\\n\\\\nfloat beckmannSpecular(\\\\n  vec3 lightDirection,\\\\n  vec3 viewDirection,\\\\n  vec3 surfaceNormal,\\\\n  float roughness) {\\\\n  return beckmannDistribution(dot(surfaceNormal, normalize(lightDirection + viewDirection)), roughness);\\\\n}\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nuniform vec3 lowerBound, upperBound;\\\\nuniform float contourTint;\\\\nuniform vec4 contourColor;\\\\nuniform sampler2D colormap;\\\\nuniform vec3 clipBounds[2];\\\\nuniform float roughness, fresnel, kambient, kdiffuse, kspecular, opacity;\\\\nuniform float vertexColor;\\\\n\\\\nvarying float value, kill;\\\\nvarying vec3 worldCoordinate;\\\\nvarying vec3 lightDirection, eyeDirection, surfaceNormal;\\\\nvarying vec4 vColor;\\\\n\\\\nvoid main() {\\\\n  if ((kill > 0.0) ||\\\\n      (outOfRange(clipBounds[0], clipBounds[1], worldCoordinate))) discard;\\\\n\\\\n  vec3 N = normalize(surfaceNormal);\\\\n  vec3 V = normalize(eyeDirection);\\\\n  vec3 L = normalize(lightDirection);\\\\n\\\\n  if(gl_FrontFacing) {\\\\n    N = -N;\\\\n  }\\\\n\\\\n  float specular = max(beckmannSpecular(L, V, N, roughness), 0.);\\\\n  float diffuse  = min(kambient + kdiffuse * max(dot(N, L), 0.0), 1.0);\\\\n\\\\n  //decide how to interpolate color \\\\u2014 in vertex or in fragment\\\\n  vec4 surfaceColor =\\\\n    step(vertexColor, .5) * texture2D(colormap, vec2(value, value)) +\\\\n    step(.5, vertexColor) * vColor;\\\\n\\\\n  vec4 litColor = surfaceColor.a * vec4(diffuse * surfaceColor.rgb + kspecular * vec3(1,1,1) * specular,  1.0);\\\\n\\\\n  gl_FragColor = mix(litColor, contourColor, contourTint) * opacity;\\\\n}\\\\n\\\"]),s=i([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec4 uv;\\\\nattribute float f;\\\\n\\\\nuniform vec3 objectOffset;\\\\nuniform mat3 permutation;\\\\nuniform mat4 model, view, projection;\\\\nuniform float height, zOffset;\\\\nuniform sampler2D colormap;\\\\n\\\\nvarying float value, kill;\\\\nvarying vec3 worldCoordinate;\\\\nvarying vec2 planeCoordinate;\\\\nvarying vec3 lightDirection, eyeDirection, surfaceNormal;\\\\nvarying vec4 vColor;\\\\n\\\\nvoid main() {\\\\n  vec3 dataCoordinate = permutation * vec3(uv.xy, height);\\\\n  worldCoordinate = objectOffset + dataCoordinate;\\\\n  vec4 worldPosition = model * vec4(worldCoordinate, 1.0);\\\\n\\\\n  vec4 clipPosition = projection * view * worldPosition;\\\\n  clipPosition.z += zOffset;\\\\n\\\\n  gl_Position = clipPosition;\\\\n  value = f + objectOffset.z;\\\\n  kill = -1.0;\\\\n  planeCoordinate = uv.zw;\\\\n\\\\n  vColor = texture2D(colormap, vec2(value, value));\\\\n\\\\n  //Don't do lighting for contours\\\\n  surfaceNormal   = vec3(1,0,0);\\\\n  eyeDirection    = vec3(0,1,0);\\\\n  lightDirection  = vec3(0,0,1);\\\\n}\\\\n\\\"]),l=i([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nbool outOfRange(float a, float b, float p) {\\\\n  return ((p > max(a, b)) || \\\\n          (p < min(a, b)));\\\\n}\\\\n\\\\nbool outOfRange(vec2 a, vec2 b, vec2 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y));\\\\n}\\\\n\\\\nbool outOfRange(vec3 a, vec3 b, vec3 p) {\\\\n  return (outOfRange(a.x, b.x, p.x) ||\\\\n          outOfRange(a.y, b.y, p.y) ||\\\\n          outOfRange(a.z, b.z, p.z));\\\\n}\\\\n\\\\nbool outOfRange(vec4 a, vec4 b, vec4 p) {\\\\n  return outOfRange(a.xyz, b.xyz, p.xyz);\\\\n}\\\\n\\\\nuniform vec2 shape;\\\\nuniform vec3 clipBounds[2];\\\\nuniform float pickId;\\\\n\\\\nvarying float value, kill;\\\\nvarying vec3 worldCoordinate;\\\\nvarying vec2 planeCoordinate;\\\\nvarying vec3 surfaceNormal;\\\\n\\\\nvec2 splitFloat(float v) {\\\\n  float vh = 255.0 * v;\\\\n  float upper = floor(vh);\\\\n  float lower = fract(vh);\\\\n  return vec2(upper / 255.0, floor(lower * 16.0) / 16.0);\\\\n}\\\\n\\\\nvoid main() {\\\\n  if ((kill > 0.0) ||\\\\n      (outOfRange(clipBounds[0], clipBounds[1], worldCoordinate))) discard;\\\\n\\\\n  vec2 ux = splitFloat(planeCoordinate.x / shape.x);\\\\n  vec2 uy = splitFloat(planeCoordinate.y / shape.y);\\\\n  gl_FragColor = vec4(pickId, ux.x, uy.x, ux.y + (uy.y/16.0));\\\\n}\\\\n\\\"]);r.createShader=function(t){var e=n(t,a,o,null,[{name:\\\"uv\\\",type:\\\"vec4\\\"},{name:\\\"f\\\",type:\\\"vec3\\\"},{name:\\\"normal\\\",type:\\\"vec3\\\"}]);return e.attributes.uv.location=0,e.attributes.f.location=1,e.attributes.normal.location=2,e},r.createPickShader=function(t){var e=n(t,a,l,null,[{name:\\\"uv\\\",type:\\\"vec4\\\"},{name:\\\"f\\\",type:\\\"vec3\\\"},{name:\\\"normal\\\",type:\\\"vec3\\\"}]);return e.attributes.uv.location=0,e.attributes.f.location=1,e.attributes.normal.location=2,e},r.createContourShader=function(t){var e=n(t,s,o,null,[{name:\\\"uv\\\",type:\\\"vec4\\\"},{name:\\\"f\\\",type:\\\"float\\\"}]);return e.attributes.uv.location=0,e.attributes.f.location=1,e},r.createPickContourShader=function(t){var e=n(t,s,l,null,[{name:\\\"uv\\\",type:\\\"vec4\\\"},{name:\\\"f\\\",type:\\\"float\\\"}]);return e.attributes.uv.location=0,e.attributes.f.location=1,e}},{\\\"gl-shader\\\":300,glslify:404}],314:[function(t,e,r){arguments[4][104][0].apply(r,arguments)},{dup:104}],315:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=t.gl,r=y(e),n=b(e),s=x(e),l=_(e),c=i(e),u=a(e,[{buffer:c,size:4,stride:w,offset:0},{buffer:c,size:3,stride:w,offset:16},{buffer:c,size:3,stride:w,offset:28}]),f=i(e),h=a(e,[{buffer:f,size:4,stride:20,offset:0},{buffer:f,size:1,stride:20,offset:16}]),p=i(e),d=a(e,[{buffer:p,size:2,type:e.FLOAT}]),g=o(e,1,S,e.RGBA,e.UNSIGNED_BYTE);g.minFilter=e.LINEAR,g.magFilter=e.LINEAR;var v=new E(e,[0,0],[[0,0,0],[0,0,0]],r,n,c,u,g,s,l,f,h,p,d,[0,0,0]),m={levels:[[],[],[]]};for(var k in t)m[k]=t[k];return m.colormap=m.colormap||\\\"jet\\\",v.update(m),v};var n=t(\\\"bit-twiddle\\\"),i=t(\\\"gl-buffer\\\"),a=t(\\\"gl-vao\\\"),o=t(\\\"gl-texture2d\\\"),s=t(\\\"typedarray-pool\\\"),l=t(\\\"colormap\\\"),c=t(\\\"ndarray-ops\\\"),u=t(\\\"ndarray-pack\\\"),f=t(\\\"ndarray\\\"),h=t(\\\"surface-nets\\\"),p=t(\\\"gl-mat4/multiply\\\"),d=t(\\\"gl-mat4/invert\\\"),g=t(\\\"binary-search-bounds\\\"),v=t(\\\"ndarray-gradient\\\"),m=t(\\\"./lib/shaders\\\"),y=m.createShader,x=m.createContourShader,b=m.createPickShader,_=m.createPickContourShader,w=40,k=[1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1],T=[[0,0],[0,1],[1,0],[1,1],[1,0],[0,1]],A=[[0,0,0,0,0,0,0,0,0],[0,0,0,0,0,0,0,0,0],[0,0,0,0,0,0,0,0,0]];function M(t,e,r,n,i){this.position=t,this.index=e,this.uv=r,this.level=n,this.dataCoordinate=i}!function(){for(var t=0;t<3;++t){var e=A[t],r=(t+2)%3;e[(t+1)%3+0]=1,e[r+3]=1,e[t+6]=1}}();var S=256;function E(t,e,r,n,i,a,o,l,c,u,h,p,d,g,v){this.gl=t,this.shape=e,this.bounds=r,this.objectOffset=v,this.intensityBounds=[],this._shader=n,this._pickShader=i,this._coordinateBuffer=a,this._vao=o,this._colorMap=l,this._contourShader=c,this._contourPickShader=u,this._contourBuffer=h,this._contourVAO=p,this._contourOffsets=[[],[],[]],this._contourCounts=[[],[],[]],this._vertexCount=0,this._pickResult=new M([0,0,0],[0,0],[0,0],[0,0,0],[0,0,0]),this._dynamicBuffer=d,this._dynamicVAO=g,this._dynamicOffsets=[0,0,0],this._dynamicCounts=[0,0,0],this.contourWidth=[1,1,1],this.contourLevels=[[1],[1],[1]],this.contourTint=[0,0,0],this.contourColor=[[.5,.5,.5,1],[.5,.5,.5,1],[.5,.5,.5,1]],this.showContour=!0,this.showSurface=!0,this.enableHighlight=[!0,!0,!0],this.highlightColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.highlightTint=[1,1,1],this.highlightLevel=[-1,-1,-1],this.enableDynamic=[!0,!0,!0],this.dynamicLevel=[NaN,NaN,NaN],this.dynamicColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.dynamicTint=[1,1,1],this.dynamicWidth=[1,1,1],this.axesBounds=[[1/0,1/0,1/0],[-1/0,-1/0,-1/0]],this.surfaceProject=[!1,!1,!1],this.contourProject=[[!1,!1,!1],[!1,!1,!1],[!1,!1,!1]],this.colorBounds=[!1,!1],this._field=[f(s.mallocFloat(1024),[0,0]),f(s.mallocFloat(1024),[0,0]),f(s.mallocFloat(1024),[0,0])],this.pickId=1,this.clipBounds=[[-1/0,-1/0,-1/0],[1/0,1/0,1/0]],this.snapToData=!1,this.pixelRatio=1,this.opacity=1,this.lightPosition=[10,1e4,0],this.ambientLight=.8,this.diffuseLight=.8,this.specularLight=2,this.roughness=.5,this.fresnel=1.5,this.vertexColor=0,this.dirty=!0}var C=E.prototype;C.isTransparent=function(){return this.opacity<1},C.isOpaque=function(){if(this.opacity>=1)return!0;for(var t=0;t<3;++t)if(this._contourCounts[t].length>0||this._dynamicCounts[t]>0)return!0;return!1},C.pickSlots=1,C.setPickBase=function(t){this.pickId=t};var L=[0,0,0],z={showSurface:!1,showContour:!1,projections:[k.slice(),k.slice(),k.slice()],clipBounds:[[[0,0,0],[0,0,0]],[[0,0,0],[0,0,0]],[[0,0,0],[0,0,0]]]};function O(t,e){var r,n,i,a=e.axes&&e.axes.lastCubeProps.axis||L,o=e.showSurface,s=e.showContour;for(r=0;r<3;++r)for(o=o||e.surfaceProject[r],n=0;n<3;++n)s=s||e.contourProject[r][n];for(r=0;r<3;++r){var l=z.projections[r];for(n=0;n<16;++n)l[n]=0;for(n=0;n<4;++n)l[5*n]=1;l[5*r]=0,l[12+r]=e.axesBounds[+(a[r]>0)][r],p(l,t.model,l);var c=z.clipBounds[r];for(i=0;i<2;++i)for(n=0;n<3;++n)c[i][n]=t.clipBounds[i][n];c[0][r]=-1e8,c[1][r]=1e8}return z.showSurface=o,z.showContour=s,z}var I={model:k,view:k,projection:k,inverseModel:k.slice(),lowerBound:[0,0,0],upperBound:[0,0,0],colorMap:0,clipBounds:[[0,0,0],[0,0,0]],height:0,contourTint:0,contourColor:[0,0,0,1],permutation:[1,0,0,0,1,0,0,0,1],zOffset:-1e-4,objectOffset:[0,0,0],kambient:1,kdiffuse:1,kspecular:1,lightPosition:[1e3,1e3,1e3],eyePosition:[0,0,0],roughness:1,fresnel:1,opacity:1,vertexColor:0},D=k.slice(),P=[1,0,0,0,1,0,0,0,1];function R(t,e){t=t||{};var r=this.gl;r.disable(r.CULL_FACE),this._colorMap.bind(0);var n=I;n.model=t.model||k,n.view=t.view||k,n.projection=t.projection||k,n.lowerBound=[this.bounds[0][0],this.bounds[0][1],this.colorBounds[0]||this.bounds[0][2]],n.upperBound=[this.bounds[1][0],this.bounds[1][1],this.colorBounds[1]||this.bounds[1][2]],n.objectOffset=this.objectOffset,n.contourColor=this.contourColor[0],n.inverseModel=d(n.inverseModel,n.model);for(var i=0;i<2;++i)for(var a=n.clipBounds[i],o=0;o<3;++o)a[o]=Math.min(Math.max(this.clipBounds[i][o],-1e8),1e8);n.kambient=this.ambientLight,n.kdiffuse=this.diffuseLight,n.kspecular=this.specularLight,n.roughness=this.roughness,n.fresnel=this.fresnel,n.opacity=this.opacity,n.height=0,n.permutation=P,n.vertexColor=this.vertexColor;var s=D;for(p(s,n.view,n.model),p(s,n.projection,s),d(s,s),i=0;i<3;++i)n.eyePosition[i]=s[12+i]/s[15];var l=s[15];for(i=0;i<3;++i)l+=this.lightPosition[i]*s[4*i+3];for(i=0;i<3;++i){var c=s[12+i];for(o=0;o<3;++o)c+=s[4*o+i]*this.lightPosition[o];n.lightPosition[i]=c/l}var u=O(n,this);if(u.showSurface&&e===this.opacity<1){for(this._shader.bind(),this._shader.uniforms=n,this._vao.bind(),this.showSurface&&this._vertexCount&&this._vao.draw(r.TRIANGLES,this._vertexCount),i=0;i<3;++i)this.surfaceProject[i]&&this.vertexCount&&(this._shader.uniforms.model=u.projections[i],this._shader.uniforms.clipBounds=u.clipBounds[i],this._vao.draw(r.TRIANGLES,this._vertexCount));this._vao.unbind()}if(u.showContour&&!e){var f=this._contourShader;n.kambient=1,n.kdiffuse=0,n.kspecular=0,n.opacity=1,f.bind(),f.uniforms=n;var h=this._contourVAO;for(h.bind(),i=0;i<3;++i)for(f.uniforms.permutation=A[i],r.lineWidth(this.contourWidth[i]*this.pixelRatio),o=0;o<this.contourLevels[i].length;++o)o===this.highlightLevel[i]?(f.uniforms.contourColor=this.highlightColor[i],f.uniforms.contourTint=this.highlightTint[i]):0!==o&&o-1!==this.highlightLevel[i]||(f.uniforms.contourColor=this.contourColor[i],f.uniforms.contourTint=this.contourTint[i]),this._contourCounts[i][o]&&(f.uniforms.height=this.contourLevels[i][o],h.draw(r.LINES,this._contourCounts[i][o],this._contourOffsets[i][o]));for(i=0;i<3;++i)for(f.uniforms.model=u.projections[i],f.uniforms.clipBounds=u.clipBounds[i],o=0;o<3;++o)if(this.contourProject[i][o]){f.uniforms.permutation=A[o],r.lineWidth(this.contourWidth[o]*this.pixelRatio);for(var g=0;g<this.contourLevels[o].length;++g)g===this.highlightLevel[o]?(f.uniforms.contourColor=this.highlightColor[o],f.uniforms.contourTint=this.highlightTint[o]):0!==g&&g-1!==this.highlightLevel[o]||(f.uniforms.contourColor=this.contourColor[o],f.uniforms.contourTint=this.contourTint[o]),this._contourCounts[o][g]&&(f.uniforms.height=this.contourLevels[o][g],h.draw(r.LINES,this._contourCounts[o][g],this._contourOffsets[o][g]))}for(h.unbind(),(h=this._dynamicVAO).bind(),i=0;i<3;++i)if(0!==this._dynamicCounts[i])for(f.uniforms.model=n.model,f.uniforms.clipBounds=n.clipBounds,f.uniforms.permutation=A[i],r.lineWidth(this.dynamicWidth[i]*this.pixelRatio),f.uniforms.contourColor=this.dynamicColor[i],f.uniforms.contourTint=this.dynamicTint[i],f.uniforms.height=this.dynamicLevel[i],h.draw(r.LINES,this._dynamicCounts[i],this._dynamicOffsets[i]),o=0;o<3;++o)this.contourProject[o][i]&&(f.uniforms.model=u.projections[o],f.uniforms.clipBounds=u.clipBounds[o],h.draw(r.LINES,this._dynamicCounts[i],this._dynamicOffsets[i]));h.unbind()}}C.draw=function(t){return R.call(this,t,!1)},C.drawTransparent=function(t){return R.call(this,t,!0)};var F={model:k,view:k,projection:k,inverseModel:k,clipBounds:[[0,0,0],[0,0,0]],height:0,shape:[0,0],pickId:0,lowerBound:[0,0,0],upperBound:[0,0,0],zOffset:0,objectOffset:[0,0,0],permutation:[1,0,0,0,1,0,0,0,1],lightPosition:[0,0,0],eyePosition:[0,0,0]};function B(t,e){return Array.isArray(t)?[e(t[0]),e(t[1]),e(t[2])]:[e(t),e(t),e(t)]}function N(t){return Array.isArray(t)?3===t.length?[t[0],t[1],t[2],1]:[t[0],t[1],t[2],t[3]]:[0,0,0,1]}function j(t){if(Array.isArray(t)){if(Array.isArray(t))return[N(t[0]),N(t[1]),N(t[2])];var e=N(t);return[e.slice(),e.slice(),e.slice()]}}C.drawPick=function(t){t=t||{};var e=this.gl;e.disable(e.CULL_FACE);var r=F;r.model=t.model||k,r.view=t.view||k,r.projection=t.projection||k,r.shape=this._field[2].shape,r.pickId=this.pickId/255,r.lowerBound=this.bounds[0],r.upperBound=this.bounds[1],r.objectOffset=this.objectOffset,r.permutation=P;for(var n=0;n<2;++n)for(var i=r.clipBounds[n],a=0;a<3;++a)i[a]=Math.min(Math.max(this.clipBounds[n][a],-1e8),1e8);var o=O(r,this);if(o.showSurface){for(this._pickShader.bind(),this._pickShader.uniforms=r,this._vao.bind(),this._vao.draw(e.TRIANGLES,this._vertexCount),n=0;n<3;++n)this.surfaceProject[n]&&(this._pickShader.uniforms.model=o.projections[n],this._pickShader.uniforms.clipBounds=o.clipBounds[n],this._vao.draw(e.TRIANGLES,this._vertexCount));this._vao.unbind()}if(o.showContour){var s=this._contourPickShader;s.bind(),s.uniforms=r;var l=this._contourVAO;for(l.bind(),a=0;a<3;++a)for(e.lineWidth(this.contourWidth[a]*this.pixelRatio),s.uniforms.permutation=A[a],n=0;n<this.contourLevels[a].length;++n)this._contourCounts[a][n]&&(s.uniforms.height=this.contourLevels[a][n],l.draw(e.LINES,this._contourCounts[a][n],this._contourOffsets[a][n]));for(n=0;n<3;++n)for(s.uniforms.model=o.projections[n],s.uniforms.clipBounds=o.clipBounds[n],a=0;a<3;++a)if(this.contourProject[n][a]){s.uniforms.permutation=A[a],e.lineWidth(this.contourWidth[a]*this.pixelRatio);for(var c=0;c<this.contourLevels[a].length;++c)this._contourCounts[a][c]&&(s.uniforms.height=this.contourLevels[a][c],l.draw(e.LINES,this._contourCounts[a][c],this._contourOffsets[a][c]))}l.unbind()}},C.pick=function(t){if(!t)return null;if(t.id!==this.pickId)return null;var e=this._field[2].shape,r=this._pickResult,n=e[0]*(t.value[0]+(t.value[2]>>4)/16)/255,i=Math.floor(n),a=n-i,o=e[1]*(t.value[1]+(15&t.value[2])/16)/255,s=Math.floor(o),l=o-s;i+=1,s+=1;var c=r.position;c[0]=c[1]=c[2]=0;for(var u=0;u<2;++u)for(var f=u?a:1-a,h=0;h<2;++h)for(var p=i+u,d=s+h,v=f*(h?l:1-l),m=0;m<3;++m)c[m]+=this._field[m].get(p,d)*v;for(var y=this._pickResult.level,x=0;x<3;++x)if(y[x]=g.le(this.contourLevels[x],c[x]),y[x]<0)this.contourLevels[x].length>0&&(y[x]=0);else if(y[x]<this.contourLevels[x].length-1){var b=this.contourLevels[x][y[x]],_=this.contourLevels[x][y[x]+1];Math.abs(b-c[x])>Math.abs(_-c[x])&&(y[x]+=1)}for(r.index[0]=a<.5?i:i+1,r.index[1]=l<.5?s:s+1,r.uv[0]=n/e[0],r.uv[1]=o/e[1],m=0;m<3;++m)r.dataCoordinate[m]=this._field[m].get(r.index[0],r.index[1]);return r},C.padField=function(t,e){var r=e.shape.slice(),n=t.shape.slice();c.assign(t.lo(1,1).hi(r[0],r[1]),e),c.assign(t.lo(1).hi(r[0],1),e.hi(r[0],1)),c.assign(t.lo(1,n[1]-1).hi(r[0],1),e.lo(0,r[1]-1).hi(r[0],1)),c.assign(t.lo(0,1).hi(1,r[1]),e.hi(1)),c.assign(t.lo(n[0]-1,1).hi(1,r[1]),e.lo(r[0]-1)),t.set(0,0,e.get(0,0)),t.set(0,n[1]-1,e.get(0,r[1]-1)),t.set(n[0]-1,0,e.get(r[0]-1,0)),t.set(n[0]-1,n[1]-1,e.get(r[0]-1,r[1]-1))},C.update=function(t){t=t||{},this.objectOffset=t.objectOffset||this.objectOffset,this.dirty=!0,\\\"contourWidth\\\"in t&&(this.contourWidth=B(t.contourWidth,Number)),\\\"showContour\\\"in t&&(this.showContour=B(t.showContour,Boolean)),\\\"showSurface\\\"in t&&(this.showSurface=!!t.showSurface),\\\"contourTint\\\"in t&&(this.contourTint=B(t.contourTint,Boolean)),\\\"contourColor\\\"in t&&(this.contourColor=j(t.contourColor)),\\\"contourProject\\\"in t&&(this.contourProject=B(t.contourProject,function(t){return B(t,Boolean)})),\\\"surfaceProject\\\"in t&&(this.surfaceProject=t.surfaceProject),\\\"dynamicColor\\\"in t&&(this.dynamicColor=j(t.dynamicColor)),\\\"dynamicTint\\\"in t&&(this.dynamicTint=B(t.dynamicTint,Number)),\\\"dynamicWidth\\\"in t&&(this.dynamicWidth=B(t.dynamicWidth,Number)),\\\"opacity\\\"in t&&(this.opacity=t.opacity),\\\"colorBounds\\\"in t&&(this.colorBounds=t.colorBounds),\\\"vertexColor\\\"in t&&(this.vertexColor=t.vertexColor?1:0);var e=t.field||t.coords&&t.coords[2]||null,r=!1;if(e||(e=this._field[2].shape[0]||this._field[2].shape[2]?this._field[2].lo(1,1).hi(this._field[2].shape[0]-2,this._field[2].shape[1]-2):this._field[2].hi(0,0)),\\\"field\\\"in t||\\\"coords\\\"in t){var i=(e.shape[0]+2)*(e.shape[1]+2);i>this._field[2].data.length&&(s.freeFloat(this._field[2].data),this._field[2].data=s.mallocFloat(n.nextPow2(i))),this._field[2]=f(this._field[2].data,[e.shape[0]+2,e.shape[1]+2]),this.padField(this._field[2],e),this.shape=e.shape.slice();for(var a=this.shape,o=0;o<2;++o)this._field[2].size>this._field[o].data.length&&(s.freeFloat(this._field[o].data),this._field[o].data=s.mallocFloat(this._field[2].size)),this._field[o]=f(this._field[o].data,[a[0]+2,a[1]+2]);if(t.coords){var p=t.coords;if(!Array.isArray(p)||3!==p.length)throw new Error(\\\"gl-surface: invalid coordinates for x/y\\\");for(o=0;o<2;++o){var d=p[o];for(b=0;b<2;++b)if(d.shape[b]!==a[b])throw new Error(\\\"gl-surface: coords have incorrect shape\\\");this.padField(this._field[o],d)}}else if(t.ticks){var g=t.ticks;if(!Array.isArray(g)||2!==g.length)throw new Error(\\\"gl-surface: invalid ticks\\\");for(o=0;o<2;++o){var m=g[o];if((Array.isArray(m)||m.length)&&(m=f(m)),m.shape[0]!==a[o])throw new Error(\\\"gl-surface: invalid tick length\\\");var y=f(m.data,a);y.stride[o]=m.stride[0],y.stride[1^o]=0,this.padField(this._field[o],y)}}else{for(o=0;o<2;++o){var x=[0,0];x[o]=1,this._field[o]=f(this._field[o].data,[a[0]+2,a[1]+2],x,0)}this._field[0].set(0,0,0);for(var b=0;b<a[0];++b)this._field[0].set(b+1,0,b);for(this._field[0].set(a[0]+1,0,a[0]-1),this._field[1].set(0,0,0),b=0;b<a[1];++b)this._field[1].set(0,b+1,b);this._field[1].set(0,a[1]+1,a[1]-1)}var _=this._field,w=f(s.mallocFloat(3*_[2].size*2),[3,a[0]+2,a[1]+2,2]);for(o=0;o<3;++o)v(w.pick(o),_[o],\\\"mirror\\\");var k=f(s.mallocFloat(3*_[2].size),[a[0]+2,a[1]+2,3]);for(o=0;o<a[0]+2;++o)for(b=0;b<a[1]+2;++b){var A=w.get(0,o,b,0),M=w.get(0,o,b,1),E=w.get(1,o,b,0),C=w.get(1,o,b,1),L=w.get(2,o,b,0),z=w.get(2,o,b,1),O=E*z-C*L,I=L*M-z*A,D=A*C-M*E,P=Math.sqrt(O*O+I*I+D*D);P<1e-8?(P=Math.max(Math.abs(O),Math.abs(I),Math.abs(D)))<1e-8?(D=1,I=O=0,P=1):P=1/P:P=1/Math.sqrt(P),k.set(o,b,0,O*P),k.set(o,b,1,I*P),k.set(o,b,2,D*P)}s.free(w.data);var R=[1/0,1/0,1/0],F=[-1/0,-1/0,-1/0],N=1/0,V=-1/0,U=(a[0]-1)*(a[1]-1)*6,H=s.mallocFloat(n.nextPow2(10*U)),q=0,G=0;for(o=0;o<a[0]-1;++o)t:for(b=0;b<a[1]-1;++b){for(var Y=0;Y<2;++Y)for(var W=0;W<2;++W)for(var X=0;X<3;++X){var Z=this._field[X].get(1+o+Y,1+b+W);if(isNaN(Z)||!isFinite(Z))continue t}for(X=0;X<6;++X){var $=o+T[X][0],J=b+T[X][1],K=this._field[0].get($+1,J+1),Q=this._field[1].get($+1,J+1);Z=this._field[2].get($+1,J+1),O=k.get($+1,J+1,0),I=k.get($+1,J+1,1),D=k.get($+1,J+1,2),t.intensity&&(tt=t.intensity.get($,J));var tt=t.intensity?t.intensity.get($,J):Z+this.objectOffset[2];H[q++]=$,H[q++]=J,H[q++]=K,H[q++]=Q,H[q++]=Z,H[q++]=0,H[q++]=tt,H[q++]=O,H[q++]=I,H[q++]=D,R[0]=Math.min(R[0],K+this.objectOffset[0]),R[1]=Math.min(R[1],Q+this.objectOffset[1]),R[2]=Math.min(R[2],Z+this.objectOffset[2]),N=Math.min(N,tt),F[0]=Math.max(F[0],K+this.objectOffset[0]),F[1]=Math.max(F[1],Q+this.objectOffset[1]),F[2]=Math.max(F[2],Z+this.objectOffset[2]),V=Math.max(V,tt),G+=1}}for(t.intensityBounds&&(N=+t.intensityBounds[0],V=+t.intensityBounds[1]),o=6;o<q;o+=10)H[o]=(H[o]-N)/(V-N);this._vertexCount=G,this._coordinateBuffer.update(H.subarray(0,q)),s.freeFloat(H),s.free(k.data),this.bounds=[R,F],this.intensity=t.intensity||this._field[2],this.intensityBounds[0]===N&&this.intensityBounds[1]===V||(r=!0),this.intensityBounds=[N,V]}if(\\\"levels\\\"in t){var et=t.levels;for(et=Array.isArray(et[0])?et.slice():[[],[],et],o=0;o<3;++o)et[o]=et[o].slice(),et[o].sort(function(t,e){return t-e});for(o=0;o<3;++o)for(b=0;b<et[o].length;++b)et[o][b]-=this.objectOffset[o];t:for(o=0;o<3;++o){if(et[o].length!==this.contourLevels[o].length){r=!0;break}for(b=0;b<et[o].length;++b)if(et[o][b]!==this.contourLevels[o][b]){r=!0;break t}}this.contourLevels=et}if(r){_=this._field,a=this.shape;for(var rt=[],nt=0;nt<3;++nt){var it=this.contourLevels[nt],at=[],ot=[],st=[0,0,0];for(o=0;o<it.length;++o){var lt=h(this._field[nt],it[o]);at.push(rt.length/5|0),G=0;t:for(b=0;b<lt.cells.length;++b){var ct=lt.cells[b];for(X=0;X<2;++X){var ut=lt.positions[ct[X]],ft=ut[0],ht=0|Math.floor(ft),pt=ft-ht,dt=ut[1],gt=0|Math.floor(dt),vt=dt-gt,mt=!1;e:for(var yt=0;yt<3;++yt){st[yt]=0;var xt=(nt+yt+1)%3;for(Y=0;Y<2;++Y){var bt=Y?pt:1-pt;for($=0|Math.min(Math.max(ht+Y,0),a[0]),W=0;W<2;++W){var _t=W?vt:1-vt;if(J=0|Math.min(Math.max(gt+W,0),a[1]),Z=yt<2?this._field[xt].get($,J):(this.intensity.get($,J)-this.intensityBounds[0])/(this.intensityBounds[1]-this.intensityBounds[0]),!isFinite(Z)||isNaN(Z)){mt=!0;break e}var wt=bt*_t;st[yt]+=wt*Z}}}if(mt){if(X>0){for(var kt=0;kt<5;++kt)rt.pop();G-=1}continue t}rt.push(st[0],st[1],ut[0],ut[1],st[2]),G+=1}}ot.push(G)}this._contourOffsets[nt]=at,this._contourCounts[nt]=ot}var Tt=s.mallocFloat(rt.length);for(o=0;o<rt.length;++o)Tt[o]=rt[o];this._contourBuffer.update(Tt),s.freeFloat(Tt)}t.colormap&&this._colorMap.setPixels(function(t){var e=u([l({colormap:t,nshades:S,format:\\\"rgba\\\"}).map(function(t){return[t[0],t[1],t[2],255*t[3]]})]);return c.divseq(e,255),e}(t.colormap))},C.dispose=function(){this._shader.dispose(),this._vao.dispose(),this._coordinateBuffer.dispose(),this._colorMap.dispose(),this._contourBuffer.dispose(),this._contourVAO.dispose(),this._contourShader.dispose(),this._contourPickShader.dispose(),this._dynamicBuffer.dispose(),this._dynamicVAO.dispose();for(var t=0;t<3;++t)s.freeFloat(this._field[t].data)},C.highlight=function(t){var e,r;if(!t)return this._dynamicCounts=[0,0,0],this.dyanamicLevel=[NaN,NaN,NaN],void(this.highlightLevel=[-1,-1,-1]);for(e=0;e<3;++e)this.enableHighlight[e]?this.highlightLevel[e]=t.level[e]:this.highlightLevel[e]=-1;for(r=this.snapToData?t.dataCoordinate:t.position,e=0;e<3;++e)r[e]-=this.objectOffset[e];if(this.enableDynamic[0]&&r[0]!==this.dynamicLevel[0]||this.enableDynamic[1]&&r[1]!==this.dynamicLevel[1]||this.enableDynamic[2]&&r[2]!==this.dynamicLevel[2]){for(var n=0,i=this.shape,a=s.mallocFloat(12*i[0]*i[1]),o=0;o<3;++o)if(this.enableDynamic[o]){this.dynamicLevel[o]=r[o];var l=(o+1)%3,c=(o+2)%3,u=this._field[o],f=this._field[l],p=this._field[c],d=h(u,r[o]),g=d.cells,v=d.positions;for(this._dynamicOffsets[o]=n,e=0;e<g.length;++e)for(var m=g[e],y=0;y<2;++y){var x=v[m[y]],b=+x[0],_=0|b,w=0|Math.min(_+1,i[0]),k=b-_,T=1-k,A=+x[1],M=0|A,S=0|Math.min(M+1,i[1]),E=A-M,C=1-E,L=T*C,z=T*E,O=k*C,I=k*E,D=L*f.get(_,M)+z*f.get(_,S)+O*f.get(w,M)+I*f.get(w,S),P=L*p.get(_,M)+z*p.get(_,S)+O*p.get(w,M)+I*p.get(w,S);if(isNaN(D)||isNaN(P)){y&&(n-=1);break}a[2*n+0]=D,a[2*n+1]=P,n+=1}this._dynamicCounts[o]=n-this._dynamicOffsets[o]}else this.dynamicLevel[o]=NaN,this._dynamicCounts[o]=0;this._dynamicBuffer.update(a.subarray(0,2*n)),s.freeFloat(a)}}},{\\\"./lib/shaders\\\":313,\\\"binary-search-bounds\\\":314,\\\"bit-twiddle\\\":85,colormap:119,\\\"gl-buffer\\\":240,\\\"gl-mat4/invert\\\":264,\\\"gl-mat4/multiply\\\":266,\\\"gl-texture2d\\\":317,\\\"gl-vao\\\":322,ndarray:445,\\\"ndarray-gradient\\\":436,\\\"ndarray-ops\\\":439,\\\"ndarray-pack\\\":440,\\\"surface-nets\\\":518,\\\"typedarray-pool\\\":532}],316:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"css-font\\\"),i=t(\\\"pick-by-alias\\\"),a=t(\\\"regl\\\"),o=t(\\\"gl-util/context\\\"),s=t(\\\"es6-weak-map\\\"),l=t(\\\"color-normalize\\\"),c=t(\\\"font-atlas\\\"),u=t(\\\"typedarray-pool\\\"),f=t(\\\"parse-rect\\\"),h=t(\\\"is-plain-obj\\\"),p=t(\\\"parse-unit\\\"),d=t(\\\"to-px\\\"),g=t(\\\"detect-kerning\\\"),v=t(\\\"object-assign\\\"),m=t(\\\"font-measure\\\"),y=t(\\\"flatten-vertex-data\\\"),x=t(\\\"bit-twiddle\\\").nextPow2,b=new s,_=!1;if(document.body){var w=document.body.appendChild(document.createElement(\\\"div\\\"));w.style.font=\\\"italic small-caps bold condensed 16px/2 cursive\\\",getComputedStyle(w).fontStretch&&(_=!0),document.body.removeChild(w)}var k=function(t){!function(t){return\\\"function\\\"==typeof t&&t._gl&&t.prop&&t.texture&&t.buffer}(t)?this.gl=o(t):(t={regl:t},this.gl=t.regl._gl),this.shader=b.get(this.gl),this.shader?this.regl=this.shader.regl:this.regl=t.regl||a({gl:this.gl}),this.charBuffer=this.regl.buffer({type:\\\"uint8\\\",usage:\\\"stream\\\"}),this.sizeBuffer=this.regl.buffer({type:\\\"float\\\",usage:\\\"stream\\\"}),this.shader||(this.shader=this.createShader(),b.set(this.gl,this.shader)),this.batch=[],this.fontSize=[],this.font=[],this.fontAtlas=[],this.draw=this.shader.draw.bind(this),this.render=function(){this.regl._refresh(),this.draw(this.batch)},this.canvas=this.gl.canvas,this.update(h(t)?t:{})};k.prototype.createShader=function(){var t=this.regl,e=t({blend:{enable:!0,color:[0,0,0,1],func:{srcRGB:\\\"src alpha\\\",dstRGB:\\\"one minus src alpha\\\",srcAlpha:\\\"one minus dst alpha\\\",dstAlpha:\\\"one\\\"}},stencil:{enable:!1},depth:{enable:!1},count:t.prop(\\\"count\\\"),offset:t.prop(\\\"offset\\\"),attributes:{charOffset:{offset:4,stride:8,buffer:t.this(\\\"sizeBuffer\\\")},width:{offset:0,stride:8,buffer:t.this(\\\"sizeBuffer\\\")},char:t.this(\\\"charBuffer\\\"),position:t.this(\\\"position\\\")},uniforms:{atlasSize:function(t,e){return[e.atlas.width,e.atlas.height]},atlasDim:function(t,e){return[e.atlas.cols,e.atlas.rows]},atlas:function(t,e){return e.atlas.texture},charStep:function(t,e){return e.atlas.step},em:function(t,e){return e.atlas.em},color:t.prop(\\\"color\\\"),opacity:t.prop(\\\"opacity\\\"),viewport:t.this(\\\"viewportArray\\\"),scale:t.this(\\\"scale\\\"),align:t.prop(\\\"align\\\"),baseline:t.prop(\\\"baseline\\\"),translate:t.this(\\\"translate\\\"),positionOffset:t.prop(\\\"positionOffset\\\")},primitive:\\\"points\\\",viewport:t.this(\\\"viewport\\\"),vert:\\\"\\\\n\\\\t\\\\t\\\\tprecision highp float;\\\\n\\\\t\\\\t\\\\tattribute float width, charOffset, char;\\\\n\\\\t\\\\t\\\\tattribute vec2 position;\\\\n\\\\t\\\\t\\\\tuniform float fontSize, charStep, em, align, baseline;\\\\n\\\\t\\\\t\\\\tuniform vec4 viewport;\\\\n\\\\t\\\\t\\\\tuniform vec4 color;\\\\n\\\\t\\\\t\\\\tuniform vec2 atlasSize, atlasDim, scale, translate, positionOffset;\\\\n\\\\t\\\\t\\\\tvarying vec2 charCoord, charId;\\\\n\\\\t\\\\t\\\\tvarying float charWidth;\\\\n\\\\t\\\\t\\\\tvarying vec4 fontColor;\\\\n\\\\t\\\\t\\\\tvoid main () {\\\\n\\\\t\\\\t\\\\t\\\\t\\\"+(k.normalViewport?\\\"\\\":\\\"vec2 positionOffset = vec2(positionOffset.x,- positionOffset.y);\\\")+\\\"\\\\n\\\\n\\\\t\\\\t\\\\t\\\\tvec2 offset = floor(em * (vec2(align + charOffset, baseline)\\\\n\\\\t\\\\t\\\\t\\\\t\\\\t+ positionOffset))\\\\n\\\\t\\\\t\\\\t\\\\t\\\\t/ (viewport.zw * scale.xy);\\\\n\\\\n\\\\t\\\\t\\\\t\\\\tvec2 position = (position + translate) * scale;\\\\n\\\\t\\\\t\\\\t\\\\tposition += offset * scale;\\\\n\\\\n\\\\t\\\\t\\\\t\\\\t\\\"+(k.normalViewport?\\\"position.y = 1. - position.y;\\\":\\\"\\\")+\\\"\\\\n\\\\n\\\\t\\\\t\\\\t\\\\tcharCoord = position * viewport.zw + viewport.xy;\\\\n\\\\n\\\\t\\\\t\\\\t\\\\tgl_Position = vec4(position * 2. - 1., 0, 1);\\\\n\\\\n\\\\t\\\\t\\\\t\\\\tgl_PointSize = charStep;\\\\n\\\\n\\\\t\\\\t\\\\t\\\\tcharId.x = mod(char, atlasDim.x);\\\\n\\\\t\\\\t\\\\t\\\\tcharId.y = floor(char / atlasDim.x);\\\\n\\\\n\\\\t\\\\t\\\\t\\\\tcharWidth = width * em;\\\\n\\\\n\\\\t\\\\t\\\\t\\\\tfontColor = color / 255.;\\\\n\\\\t\\\\t\\\\t}\\\",frag:\\\"\\\\n\\\\t\\\\t\\\\tprecision highp float;\\\\n\\\\t\\\\t\\\\tuniform sampler2D atlas;\\\\n\\\\t\\\\t\\\\tuniform float fontSize, charStep, opacity;\\\\n\\\\t\\\\t\\\\tuniform vec2 atlasSize;\\\\n\\\\t\\\\t\\\\tuniform vec4 viewport;\\\\n\\\\t\\\\t\\\\tvarying vec4 fontColor;\\\\n\\\\t\\\\t\\\\tvarying vec2 charCoord, charId;\\\\n\\\\t\\\\t\\\\tvarying float charWidth;\\\\n\\\\n\\\\t\\\\t\\\\tfloat lightness(vec4 color) {\\\\n\\\\t\\\\t\\\\t\\\\treturn color.r * 0.299 + color.g * 0.587 + color.b * 0.114;\\\\n\\\\t\\\\t\\\\t}\\\\n\\\\n\\\\t\\\\t\\\\tvoid main () {\\\\n\\\\t\\\\t\\\\t\\\\tvec2 uv = gl_FragCoord.xy - charCoord + charStep * .5;\\\\n\\\\t\\\\t\\\\t\\\\tfloat halfCharStep = floor(charStep * .5 + .5);\\\\n\\\\n\\\\t\\\\t\\\\t\\\\t// invert y and shift by 1px (FF expecially needs that)\\\\n\\\\t\\\\t\\\\t\\\\tuv.y = charStep - uv.y;\\\\n\\\\n\\\\t\\\\t\\\\t\\\\t// ignore points outside of character bounding box\\\\n\\\\t\\\\t\\\\t\\\\tfloat halfCharWidth = ceil(charWidth * .5);\\\\n\\\\t\\\\t\\\\t\\\\tif (floor(uv.x) > halfCharStep + halfCharWidth ||\\\\n\\\\t\\\\t\\\\t\\\\t\\\\tfloor(uv.x) < halfCharStep - halfCharWidth) return;\\\\n\\\\n\\\\t\\\\t\\\\t\\\\tuv += charId * charStep;\\\\n\\\\t\\\\t\\\\t\\\\tuv = uv / atlasSize;\\\\n\\\\n\\\\t\\\\t\\\\t\\\\tvec4 color = fontColor;\\\\n\\\\t\\\\t\\\\t\\\\tvec4 mask = texture2D(atlas, uv);\\\\n\\\\n\\\\t\\\\t\\\\t\\\\tfloat maskY = lightness(mask);\\\\n\\\\t\\\\t\\\\t\\\\t// float colorY = lightness(color);\\\\n\\\\t\\\\t\\\\t\\\\tcolor.a *= maskY;\\\\n\\\\t\\\\t\\\\t\\\\tcolor.a *= opacity;\\\\n\\\\n\\\\t\\\\t\\\\t\\\\t// color.a += .1;\\\\n\\\\n\\\\t\\\\t\\\\t\\\\t// antialiasing, see yiq color space y-channel formula\\\\n\\\\t\\\\t\\\\t\\\\t// color.rgb += (1. - color.rgb) * (1. - mask.rgb);\\\\n\\\\n\\\\t\\\\t\\\\t\\\\tgl_FragColor = color;\\\\n\\\\t\\\\t\\\\t}\\\"});return{regl:t,draw:e,atlas:{}}},k.prototype.update=function(t){var e=this;if(\\\"string\\\"==typeof t)t={text:t};else if(!t)return;null!=(t=i(t,{position:\\\"position positions coord coords coordinates\\\",font:\\\"font fontFace fontface typeface cssFont css-font family fontFamily\\\",fontSize:\\\"fontSize fontsize size font-size\\\",text:\\\"text texts chars characters value values symbols\\\",align:\\\"align alignment textAlign textbaseline\\\",baseline:\\\"baseline textBaseline textbaseline\\\",direction:\\\"dir direction textDirection\\\",color:\\\"color colour fill fill-color fillColor textColor textcolor\\\",kerning:\\\"kerning kern\\\",range:\\\"range dataBox\\\",viewport:\\\"vp viewport viewBox viewbox viewPort\\\",opacity:\\\"opacity alpha transparency visible visibility opaque\\\",offset:\\\"offset positionOffset padding shift indent indentation\\\"},!0)).opacity&&(Array.isArray(t.opacity)?this.opacity=t.opacity.map(function(t){return parseFloat(t)}):this.opacity=parseFloat(t.opacity)),null!=t.viewport&&(this.viewport=f(t.viewport),k.normalViewport&&(this.viewport.y=this.canvas.height-this.viewport.y-this.viewport.height),this.viewportArray=[this.viewport.x,this.viewport.y,this.viewport.width,this.viewport.height]),null==this.viewport&&(this.viewport={x:0,y:0,width:this.gl.drawingBufferWidth,height:this.gl.drawingBufferHeight},this.viewportArray=[this.viewport.x,this.viewport.y,this.viewport.width,this.viewport.height]),null!=t.kerning&&(this.kerning=t.kerning),null!=t.offset&&(\\\"number\\\"==typeof t.offset&&(t.offset=[t.offset,0]),this.positionOffset=y(t.offset)),t.direction&&(this.direction=t.direction),t.range&&(this.range=t.range,this.scale=[1/(t.range[2]-t.range[0]),1/(t.range[3]-t.range[1])],this.translate=[-t.range[0],-t.range[1]]),t.scale&&(this.scale=t.scale),t.translate&&(this.translate=t.translate),this.scale||(this.scale=[1/this.viewport.width,1/this.viewport.height]),this.translate||(this.translate=[0,0]),this.font.length||t.font||(t.font=k.baseFontSize+\\\"px sans-serif\\\");var r,a=!1,o=!1;if(t.font&&(Array.isArray(t.font)?t.font:[t.font]).forEach(function(t,r){if(\\\"string\\\"==typeof t)try{t=n.parse(t)}catch(e){t=n.parse(k.baseFontSize+\\\"px \\\"+t)}else t=n.parse(n.stringify(t));var i=n.stringify({size:k.baseFontSize,family:t.family,stretch:_?t.stretch:void 0,variant:t.variant,weight:t.weight,style:t.style}),s=p(t.size),l=Math.round(s[0]*d(s[1]));if(l!==e.fontSize[r]&&(o=!0,e.fontSize[r]=l),!(e.font[r]&&i==e.font[r].baseString||(a=!0,e.font[r]=k.fonts[i],e.font[r]))){var c=t.family.join(\\\", \\\"),u=[t.style];t.style!=t.variant&&u.push(t.variant),t.variant!=t.weight&&u.push(t.weight),_&&t.weight!=t.stretch&&u.push(t.stretch),e.font[r]={baseString:i,family:c,weight:t.weight,stretch:t.stretch,style:t.style,variant:t.variant,width:{},kerning:{},metrics:m(c,{origin:\\\"top\\\",fontSize:k.baseFontSize,fontStyle:u.join(\\\" \\\")})},k.fonts[i]=e.font[r]}}),(a||o)&&this.font.forEach(function(r,i){var a=n.stringify({size:e.fontSize[i],family:r.family,stretch:_?r.stretch:void 0,variant:r.variant,weight:r.weight,style:r.style});if(e.fontAtlas[i]=e.shader.atlas[a],!e.fontAtlas[i]){var o=r.metrics;e.shader.atlas[a]=e.fontAtlas[i]={fontString:a,step:2*Math.ceil(e.fontSize[i]*o.bottom*.5),em:e.fontSize[i],cols:0,rows:0,height:0,width:0,chars:[],ids:{},texture:e.regl.texture()}}null==t.text&&(t.text=e.text)}),\\\"string\\\"==typeof t.text&&t.position&&t.position.length>2){for(var s=Array(.5*t.position.length),h=0;h<s.length;h++)s[h]=t.text;t.text=s}if(null!=t.text||a){if(this.textOffsets=[0],Array.isArray(t.text)){this.count=t.text[0].length,this.counts=[this.count];for(var b=1;b<t.text.length;b++)e.textOffsets[b]=e.textOffsets[b-1]+t.text[b-1].length,e.count+=t.text[b].length,e.counts.push(t.text[b].length);this.text=t.text.join(\\\"\\\")}else this.text=t.text,this.count=this.text.length,this.counts=[this.count];r=[],this.font.forEach(function(t,n){k.atlasContext.font=t.baseString;for(var i=e.fontAtlas[n],a=0;a<e.text.length;a++){var o=e.text.charAt(a);if(null==i.ids[o]&&(i.ids[o]=i.chars.length,i.chars.push(o),r.push(o)),null==t.width[o]&&(t.width[o]=k.atlasContext.measureText(o).width/k.baseFontSize,e.kerning)){var s=[];for(var l in t.width)s.push(l+o,o+l);v(t.kerning,g(t.family,{pairs:s}))}}})}if(t.position)if(t.position.length>2){for(var w=!t.position[0].length,T=u.mallocFloat(2*this.count),A=0,M=0;A<this.counts.length;A++){var S=e.counts[A];if(w)for(var E=0;E<S;E++)T[M++]=t.position[2*A],T[M++]=t.position[2*A+1];else for(var C=0;C<S;C++)T[M++]=t.position[A][0],T[M++]=t.position[A][1]}this.position.call?this.position({type:\\\"float\\\",data:T}):this.position=this.regl.buffer({type:\\\"float\\\",data:T}),u.freeFloat(T)}else this.position.destroy&&this.position.destroy(),this.position={constant:t.position};if(t.text||a){var L=u.mallocUint8(this.count),z=u.mallocFloat(2*this.count);this.textWidth=[];for(var O=0,I=0;O<this.counts.length;O++){for(var D=e.counts[O],P=e.font[O]||e.font[0],R=e.fontAtlas[O]||e.fontAtlas[0],F=0;F<D;F++){var B=e.text.charAt(I),N=e.text.charAt(I-1);if(L[I]=R.ids[B],z[2*I]=P.width[B],F){var j=z[2*I-2],V=z[2*I],U=z[2*I-1]+.5*j+.5*V;if(e.kerning){var H=P.kerning[N+B];H&&(U+=.001*H)}z[2*I+1]=U}else z[2*I+1]=.5*z[2*I];I++}e.textWidth.push(z.length?.5*z[2*I-2]+z[2*I-1]:0)}t.align||(t.align=this.align),this.charBuffer({data:L,type:\\\"uint8\\\",usage:\\\"stream\\\"}),this.sizeBuffer({data:z,type:\\\"float\\\",usage:\\\"stream\\\"}),u.freeUint8(L),u.freeFloat(z),r.length&&this.font.forEach(function(t,r){var n=e.fontAtlas[r],i=n.step,a=Math.floor(k.maxAtlasSize/i),o=Math.min(a,n.chars.length),s=Math.ceil(n.chars.length/o),l=x(o*i),u=x(s*i);n.width=l,n.height=u,n.rows=s,n.cols=o,n.em&&n.texture({data:c({canvas:k.atlasCanvas,font:n.fontString,chars:n.chars,shape:[l,u],step:[i,i]})})})}if(t.align&&(this.align=t.align,this.alignOffset=this.textWidth.map(function(t,r){var n=Array.isArray(e.align)?e.align.length>1?e.align[r]:e.align[0]:e.align;if(\\\"number\\\"==typeof n)return n;switch(n){case\\\"right\\\":case\\\"end\\\":return-t;case\\\"center\\\":case\\\"centre\\\":case\\\"middle\\\":return.5*-t}return 0})),null==this.baseline&&null==t.baseline&&(t.baseline=0),null!=t.baseline&&(this.baseline=t.baseline,Array.isArray(this.baseline)||(this.baseline=[this.baseline]),this.baselineOffset=this.baseline.map(function(t,r){var n=(e.font[r]||e.font[0]).metrics,i=0;return i+=.5*n.bottom,i+=\\\"number\\\"==typeof t?t-n.baseline:-n[t],k.normalViewport||(i*=-1),i})),null!=t.color)if(t.color||(t.color=\\\"transparent\\\"),\\\"string\\\"!=typeof t.color&&isNaN(t.color)){var q;if(\\\"number\\\"==typeof t.color[0]&&t.color.length>this.counts.length){var G=t.color.length;q=u.mallocUint8(G);for(var Y=(t.color.subarray||t.color.slice).bind(t.color),W=0;W<G;W+=4)q.set(l(Y(W,W+4),\\\"uint8\\\"),W)}else{var X=t.color.length;q=u.mallocUint8(4*X);for(var Z=0;Z<X;Z++)q.set(l(t.color[Z]||0,\\\"uint8\\\"),4*Z)}this.color=q}else this.color=l(t.color,\\\"uint8\\\");if(t.position||t.text||t.color||t.baseline||t.align||t.font||t.offset||t.opacity)if(this.color.length>4||this.baselineOffset.length>1||this.align&&this.align.length>1||this.fontAtlas.length>1||this.positionOffset.length>2){var $=Math.max(.5*this.position.length||0,.25*this.color.length||0,this.baselineOffset.length||0,this.alignOffset.length||0,this.font.length||0,this.opacity.length||0,.5*this.positionOffset.length||0);this.batch=Array($);for(var J=0;J<this.batch.length;J++)e.batch[J]={count:e.counts.length>1?e.counts[J]:e.counts[0],offset:e.textOffsets.length>1?e.textOffsets[J]:e.textOffsets[0],color:e.color?e.color.length<=4?e.color:e.color.subarray(4*J,4*J+4):[0,0,0,255],opacity:Array.isArray(e.opacity)?e.opacity[J]:e.opacity,baseline:null!=e.baselineOffset[J]?e.baselineOffset[J]:e.baselineOffset[0],align:e.align?null!=e.alignOffset[J]?e.alignOffset[J]:e.alignOffset[0]:0,atlas:e.fontAtlas[J]||e.fontAtlas[0],positionOffset:e.positionOffset.length>2?e.positionOffset.subarray(2*J,2*J+2):e.positionOffset}}else this.count?this.batch=[{count:this.count,offset:0,color:this.color||[0,0,0,255],opacity:Array.isArray(this.opacity)?this.opacity[0]:this.opacity,baseline:this.baselineOffset[0],align:this.alignOffset?this.alignOffset[0]:0,atlas:this.fontAtlas[0],positionOffset:this.positionOffset}]:this.batch=[]},k.prototype.destroy=function(){},k.prototype.kerning=!0,k.prototype.position={constant:new Float32Array(2)},k.prototype.translate=null,k.prototype.scale=null,k.prototype.font=null,k.prototype.text=\\\"\\\",k.prototype.positionOffset=[0,0],k.prototype.opacity=1,k.prototype.color=new Uint8Array([0,0,0,255]),k.prototype.alignOffset=[0,0],k.normalViewport=!1,k.maxAtlasSize=1024,k.atlasCanvas=document.createElement(\\\"canvas\\\"),k.atlasContext=k.atlasCanvas.getContext(\\\"2d\\\",{alpha:!1}),k.baseFontSize=64,k.fonts={},e.exports=k},{\\\"bit-twiddle\\\":85,\\\"color-normalize\\\":113,\\\"css-font\\\":132,\\\"detect-kerning\\\":160,\\\"es6-weak-map\\\":219,\\\"flatten-vertex-data\\\":226,\\\"font-atlas\\\":227,\\\"font-measure\\\":228,\\\"gl-util/context\\\":318,\\\"is-plain-obj\\\":417,\\\"object-assign\\\":449,\\\"parse-rect\\\":454,\\\"parse-unit\\\":456,\\\"pick-by-alias\\\":460,regl:489,\\\"to-px\\\":526,\\\"typedarray-pool\\\":532}],317:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"ndarray\\\"),i=t(\\\"ndarray-ops\\\"),a=t(\\\"typedarray-pool\\\");e.exports=function(t){if(arguments.length<=1)throw new Error(\\\"gl-texture2d: Missing arguments for texture2d constructor\\\");o||function(t){o=[t.LINEAR,t.NEAREST_MIPMAP_LINEAR,t.LINEAR_MIPMAP_NEAREST,t.LINEAR_MIPMAP_NEAREST],s=[t.NEAREST,t.LINEAR,t.NEAREST_MIPMAP_NEAREST,t.NEAREST_MIPMAP_LINEAR,t.LINEAR_MIPMAP_NEAREST,t.LINEAR_MIPMAP_LINEAR],l=[t.REPEAT,t.CLAMP_TO_EDGE,t.MIRRORED_REPEAT]}(t);if(\\\"number\\\"==typeof arguments[1])return v(t,arguments[1],arguments[2],arguments[3]||t.RGBA,arguments[4]||t.UNSIGNED_BYTE);if(Array.isArray(arguments[1]))return v(t,0|arguments[1][0],0|arguments[1][1],arguments[2]||t.RGBA,arguments[3]||t.UNSIGNED_BYTE);if(\\\"object\\\"==typeof arguments[1]){var e=arguments[1],r=c(e)?e:e.raw;if(r)return function(t,e,r,n,i,a){var o=g(t);return t.texImage2D(t.TEXTURE_2D,0,i,i,a,e),new h(t,o,r,n,i,a)}(t,r,0|e.width,0|e.height,arguments[2]||t.RGBA,arguments[3]||t.UNSIGNED_BYTE);if(e.shape&&e.data&&e.stride)return function(t,e){var r=e.dtype,o=e.shape.slice(),s=t.getParameter(t.MAX_TEXTURE_SIZE);if(o[0]<0||o[0]>s||o[1]<0||o[1]>s)throw new Error(\\\"gl-texture2d: Invalid texture size\\\");var l=d(o,e.stride.slice()),c=0;\\\"float32\\\"===r?c=t.FLOAT:\\\"float64\\\"===r?(c=t.FLOAT,l=!1,r=\\\"float32\\\"):\\\"uint8\\\"===r?c=t.UNSIGNED_BYTE:(c=t.UNSIGNED_BYTE,l=!1,r=\\\"uint8\\\");var f,p,v=0;if(2===o.length)v=t.LUMINANCE,o=[o[0],o[1],1],e=n(e.data,o,[e.stride[0],e.stride[1],1],e.offset);else{if(3!==o.length)throw new Error(\\\"gl-texture2d: Invalid shape for texture\\\");if(1===o[2])v=t.ALPHA;else if(2===o[2])v=t.LUMINANCE_ALPHA;else if(3===o[2])v=t.RGB;else{if(4!==o[2])throw new Error(\\\"gl-texture2d: Invalid shape for pixel coords\\\");v=t.RGBA}}c!==t.FLOAT||t.getExtension(\\\"OES_texture_float\\\")||(c=t.UNSIGNED_BYTE,l=!1);var m=e.size;if(l)f=0===e.offset&&e.data.length===m?e.data:e.data.subarray(e.offset,e.offset+m);else{var y=[o[2],o[2]*o[0],1];p=a.malloc(m,r);var x=n(p,o,y,0);\\\"float32\\\"!==r&&\\\"float64\\\"!==r||c!==t.UNSIGNED_BYTE?i.assign(x,e):u(x,e),f=p.subarray(0,m)}var b=g(t);t.texImage2D(t.TEXTURE_2D,0,v,o[0],o[1],0,v,c,f),l||a.free(p);return new h(t,b,o[0],o[1],v,c)}(t,e)}throw new Error(\\\"gl-texture2d: Invalid arguments for texture2d constructor\\\")};var o=null,s=null,l=null;function c(t){return\\\"undefined\\\"!=typeof HTMLCanvasElement&&t instanceof HTMLCanvasElement||\\\"undefined\\\"!=typeof HTMLImageElement&&t instanceof HTMLImageElement||\\\"undefined\\\"!=typeof HTMLVideoElement&&t instanceof HTMLVideoElement||\\\"undefined\\\"!=typeof ImageData&&t instanceof ImageData}var u=function(t,e){i.muls(t,e,255)};function f(t,e,r){var n=t.gl,i=n.getParameter(n.MAX_TEXTURE_SIZE);if(e<0||e>i||r<0||r>i)throw new Error(\\\"gl-texture2d: Invalid texture size\\\");return t._shape=[e,r],t.bind(),n.texImage2D(n.TEXTURE_2D,0,t.format,e,r,0,t.format,t.type,null),t._mipLevels=[0],t}function h(t,e,r,n,i,a){this.gl=t,this.handle=e,this.format=i,this.type=a,this._shape=[r,n],this._mipLevels=[0],this._magFilter=t.NEAREST,this._minFilter=t.NEAREST,this._wrapS=t.CLAMP_TO_EDGE,this._wrapT=t.CLAMP_TO_EDGE,this._anisoSamples=1;var o=this,s=[this._wrapS,this._wrapT];Object.defineProperties(s,[{get:function(){return o._wrapS},set:function(t){return o.wrapS=t}},{get:function(){return o._wrapT},set:function(t){return o.wrapT=t}}]),this._wrapVector=s;var l=[this._shape[0],this._shape[1]];Object.defineProperties(l,[{get:function(){return o._shape[0]},set:function(t){return o.width=t}},{get:function(){return o._shape[1]},set:function(t){return o.height=t}}]),this._shapeVector=l}var p=h.prototype;function d(t,e){return 3===t.length?1===e[2]&&e[1]===t[0]*t[2]&&e[0]===t[2]:1===e[0]&&e[1]===t[0]}function g(t){var e=t.createTexture();return t.bindTexture(t.TEXTURE_2D,e),t.texParameteri(t.TEXTURE_2D,t.TEXTURE_MIN_FILTER,t.NEAREST),t.texParameteri(t.TEXTURE_2D,t.TEXTURE_MAG_FILTER,t.NEAREST),t.texParameteri(t.TEXTURE_2D,t.TEXTURE_WRAP_S,t.CLAMP_TO_EDGE),t.texParameteri(t.TEXTURE_2D,t.TEXTURE_WRAP_T,t.CLAMP_TO_EDGE),e}function v(t,e,r,n,i){var a=t.getParameter(t.MAX_TEXTURE_SIZE);if(e<0||e>a||r<0||r>a)throw new Error(\\\"gl-texture2d: Invalid texture shape\\\");if(i===t.FLOAT&&!t.getExtension(\\\"OES_texture_float\\\"))throw new Error(\\\"gl-texture2d: Floating point textures not supported on this platform\\\");var o=g(t);return t.texImage2D(t.TEXTURE_2D,0,n,e,r,0,n,i,null),new h(t,o,e,r,n,i)}Object.defineProperties(p,{minFilter:{get:function(){return this._minFilter},set:function(t){this.bind();var e=this.gl;if(this.type===e.FLOAT&&o.indexOf(t)>=0&&(e.getExtension(\\\"OES_texture_float_linear\\\")||(t=e.NEAREST)),s.indexOf(t)<0)throw new Error(\\\"gl-texture2d: Unknown filter mode \\\"+t);return e.texParameteri(e.TEXTURE_2D,e.TEXTURE_MIN_FILTER,t),this._minFilter=t}},magFilter:{get:function(){return this._magFilter},set:function(t){this.bind();var e=this.gl;if(this.type===e.FLOAT&&o.indexOf(t)>=0&&(e.getExtension(\\\"OES_texture_float_linear\\\")||(t=e.NEAREST)),s.indexOf(t)<0)throw new Error(\\\"gl-texture2d: Unknown filter mode \\\"+t);return e.texParameteri(e.TEXTURE_2D,e.TEXTURE_MAG_FILTER,t),this._magFilter=t}},mipSamples:{get:function(){return this._anisoSamples},set:function(t){var e=this._anisoSamples;if(this._anisoSamples=0|Math.max(t,1),e!==this._anisoSamples){var r=this.gl.getExtension(\\\"EXT_texture_filter_anisotropic\\\");r&&this.gl.texParameterf(this.gl.TEXTURE_2D,r.TEXTURE_MAX_ANISOTROPY_EXT,this._anisoSamples)}return this._anisoSamples}},wrapS:{get:function(){return this._wrapS},set:function(t){if(this.bind(),l.indexOf(t)<0)throw new Error(\\\"gl-texture2d: Unknown wrap mode \\\"+t);return this.gl.texParameteri(this.gl.TEXTURE_2D,this.gl.TEXTURE_WRAP_S,t),this._wrapS=t}},wrapT:{get:function(){return this._wrapT},set:function(t){if(this.bind(),l.indexOf(t)<0)throw new Error(\\\"gl-texture2d: Unknown wrap mode \\\"+t);return this.gl.texParameteri(this.gl.TEXTURE_2D,this.gl.TEXTURE_WRAP_T,t),this._wrapT=t}},wrap:{get:function(){return this._wrapVector},set:function(t){if(Array.isArray(t)||(t=[t,t]),2!==t.length)throw new Error(\\\"gl-texture2d: Must specify wrap mode for rows and columns\\\");for(var e=0;e<2;++e)if(l.indexOf(t[e])<0)throw new Error(\\\"gl-texture2d: Unknown wrap mode \\\"+t);this._wrapS=t[0],this._wrapT=t[1];var r=this.gl;return this.bind(),r.texParameteri(r.TEXTURE_2D,r.TEXTURE_WRAP_S,this._wrapS),r.texParameteri(r.TEXTURE_2D,r.TEXTURE_WRAP_T,this._wrapT),t}},shape:{get:function(){return this._shapeVector},set:function(t){if(Array.isArray(t)){if(2!==t.length)throw new Error(\\\"gl-texture2d: Invalid texture shape\\\")}else t=[0|t,0|t];return f(this,0|t[0],0|t[1]),[0|t[0],0|t[1]]}},width:{get:function(){return this._shape[0]},set:function(t){return f(this,t|=0,this._shape[1]),t}},height:{get:function(){return this._shape[1]},set:function(t){return t|=0,f(this,this._shape[0],t),t}}}),p.bind=function(t){var e=this.gl;return void 0!==t&&e.activeTexture(e.TEXTURE0+(0|t)),e.bindTexture(e.TEXTURE_2D,this.handle),void 0!==t?0|t:e.getParameter(e.ACTIVE_TEXTURE)-e.TEXTURE0},p.dispose=function(){this.gl.deleteTexture(this.handle)},p.generateMipmap=function(){this.bind(),this.gl.generateMipmap(this.gl.TEXTURE_2D);for(var t=Math.min(this._shape[0],this._shape[1]),e=0;t>0;++e,t>>>=1)this._mipLevels.indexOf(e)<0&&this._mipLevels.push(e)},p.setPixels=function(t,e,r,o){var s=this.gl;this.bind(),Array.isArray(e)?(o=r,r=0|e[1],e=0|e[0]):(e=e||0,r=r||0),o=o||0;var l=c(t)?t:t.raw;if(l){this._mipLevels.indexOf(o)<0?(s.texImage2D(s.TEXTURE_2D,0,this.format,this.format,this.type,l),this._mipLevels.push(o)):s.texSubImage2D(s.TEXTURE_2D,o,e,r,this.format,this.type,l)}else{if(!(t.shape&&t.stride&&t.data))throw new Error(\\\"gl-texture2d: Unsupported data type\\\");if(t.shape.length<2||e+t.shape[1]>this._shape[1]>>>o||r+t.shape[0]>this._shape[0]>>>o||e<0||r<0)throw new Error(\\\"gl-texture2d: Texture dimensions are out of bounds\\\");!function(t,e,r,o,s,l,c,f){var h=f.dtype,p=f.shape.slice();if(p.length<2||p.length>3)throw new Error(\\\"gl-texture2d: Invalid ndarray, must be 2d or 3d\\\");var g=0,v=0,m=d(p,f.stride.slice());\\\"float32\\\"===h?g=t.FLOAT:\\\"float64\\\"===h?(g=t.FLOAT,m=!1,h=\\\"float32\\\"):\\\"uint8\\\"===h?g=t.UNSIGNED_BYTE:(g=t.UNSIGNED_BYTE,m=!1,h=\\\"uint8\\\");if(2===p.length)v=t.LUMINANCE,p=[p[0],p[1],1],f=n(f.data,p,[f.stride[0],f.stride[1],1],f.offset);else{if(3!==p.length)throw new Error(\\\"gl-texture2d: Invalid shape for texture\\\");if(1===p[2])v=t.ALPHA;else if(2===p[2])v=t.LUMINANCE_ALPHA;else if(3===p[2])v=t.RGB;else{if(4!==p[2])throw new Error(\\\"gl-texture2d: Invalid shape for pixel coords\\\");v=t.RGBA}p[2]}v!==t.LUMINANCE&&v!==t.ALPHA||s!==t.LUMINANCE&&s!==t.ALPHA||(v=s);if(v!==s)throw new Error(\\\"gl-texture2d: Incompatible texture format for setPixels\\\");var y=f.size,x=c.indexOf(o)<0;x&&c.push(o);if(g===l&&m)0===f.offset&&f.data.length===y?x?t.texImage2D(t.TEXTURE_2D,o,s,p[0],p[1],0,s,l,f.data):t.texSubImage2D(t.TEXTURE_2D,o,e,r,p[0],p[1],s,l,f.data):x?t.texImage2D(t.TEXTURE_2D,o,s,p[0],p[1],0,s,l,f.data.subarray(f.offset,f.offset+y)):t.texSubImage2D(t.TEXTURE_2D,o,e,r,p[0],p[1],s,l,f.data.subarray(f.offset,f.offset+y));else{var b;b=l===t.FLOAT?a.mallocFloat32(y):a.mallocUint8(y);var _=n(b,p,[p[2],p[2]*p[0],1]);g===t.FLOAT&&l===t.UNSIGNED_BYTE?u(_,f):i.assign(_,f),x?t.texImage2D(t.TEXTURE_2D,o,s,p[0],p[1],0,s,l,b.subarray(0,y)):t.texSubImage2D(t.TEXTURE_2D,o,e,r,p[0],p[1],s,l,b.subarray(0,y)),l===t.FLOAT?a.freeFloat32(b):a.freeUint8(b)}}(s,e,r,o,this.format,this.type,this._mipLevels,t)}}},{ndarray:445,\\\"ndarray-ops\\\":439,\\\"typedarray-pool\\\":532}],318:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"pick-by-alias\\\");function i(t){if(t.container)if(t.container==document.body)document.body.style.width||(t.canvas.width=t.width||t.pixelRatio*window.innerWidth),document.body.style.height||(t.canvas.height=t.height||t.pixelRatio*window.innerHeight);else{var e=t.container.getBoundingClientRect();t.canvas.width=t.width||e.right-e.left,t.canvas.height=t.height||e.bottom-e.top}}function a(t){return\\\"function\\\"==typeof t.getContext&&\\\"width\\\"in t&&\\\"height\\\"in t}e.exports=function(t){var e;if(t?\\\"string\\\"==typeof t&&(t={container:t}):t={},a(t)?t={container:t}:t=\\\"string\\\"==typeof(e=t).nodeName&&\\\"function\\\"==typeof e.appendChild&&\\\"function\\\"==typeof e.getBoundingClientRect?{container:t}:function(t){return\\\"function\\\"==typeof t.drawArrays||\\\"function\\\"==typeof t.drawElements}(t)?{gl:t}:n(t,{container:\\\"container target element el canvas holder parent parentNode wrapper use ref root node\\\",gl:\\\"gl context webgl glContext\\\",attrs:\\\"attributes attrs contextAttributes\\\",pixelRatio:\\\"pixelRatio pxRatio px ratio pxratio pixelratio\\\"},!0),t.pixelRatio||(t.pixelRatio=window.pixelRatio||1),t.gl)return t.gl;if(t.canvas&&(t.container=t.canvas.parentNode),t.container){if(\\\"string\\\"==typeof t.container){var r=document.querySelector(t.container);if(!r)throw Error(\\\"Element \\\"+t.container+\\\" is not found\\\");t.container=r}a(t.container)?(t.canvas=t.container,t.container=t.canvas.parentNode):t.canvas||(t.canvas=document.createElement(\\\"canvas\\\"),t.container.appendChild(t.canvas),i(t))}else t.canvas||(t.container=document.body||document.documentElement,t.canvas=document.createElement(\\\"canvas\\\"),t.canvas.style.position=\\\"absolute\\\",t.canvas.style.top=0,t.canvas.style.left=0,t.container.appendChild(t.canvas),i(t));if(!t.gl)try{t.gl=t.canvas.getContext(\\\"webgl\\\",t.attrs)}catch(e){try{t.gl=t.canvas.getContext(\\\"experimental-webgl\\\",t.attrs)}catch(e){t.gl=t.canvas.getContext(\\\"webgl-experimental\\\",t.attrs)}}return t.gl}},{\\\"pick-by-alias\\\":460}],319:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){e?e.bind():t.bindBuffer(t.ELEMENT_ARRAY_BUFFER,null);var n=0|t.getParameter(t.MAX_VERTEX_ATTRIBS);if(r){if(r.length>n)throw new Error(\\\"gl-vao: Too many vertex attributes\\\");for(var i=0;i<r.length;++i){var a=r[i];if(a.buffer){var o=a.buffer,s=a.size||4,l=a.type||t.FLOAT,c=!!a.normalized,u=a.stride||0,f=a.offset||0;o.bind(),t.enableVertexAttribArray(i),t.vertexAttribPointer(i,s,l,c,u,f)}else{if(\\\"number\\\"==typeof a)t.vertexAttrib1f(i,a);else if(1===a.length)t.vertexAttrib1f(i,a[0]);else if(2===a.length)t.vertexAttrib2f(i,a[0],a[1]);else if(3===a.length)t.vertexAttrib3f(i,a[0],a[1],a[2]);else{if(4!==a.length)throw new Error(\\\"gl-vao: Invalid vertex attribute\\\");t.vertexAttrib4f(i,a[0],a[1],a[2],a[3])}t.disableVertexAttribArray(i)}}for(;i<n;++i)t.disableVertexAttribArray(i)}else for(t.bindBuffer(t.ARRAY_BUFFER,null),i=0;i<n;++i)t.disableVertexAttribArray(i)}},{}],320:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./do-bind.js\\\");function i(t){this.gl=t,this._elements=null,this._attributes=null,this._elementsType=t.UNSIGNED_SHORT}i.prototype.bind=function(){n(this.gl,this._elements,this._attributes)},i.prototype.update=function(t,e,r){this._elements=e,this._attributes=t,this._elementsType=r||this.gl.UNSIGNED_SHORT},i.prototype.dispose=function(){},i.prototype.unbind=function(){},i.prototype.draw=function(t,e,r){r=r||0;var n=this.gl;this._elements?n.drawElements(t,e,this._elementsType,r):n.drawArrays(t,r,e)},e.exports=function(t){return new i(t)}},{\\\"./do-bind.js\\\":319}],321:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./do-bind.js\\\");function i(t,e,r,n,i,a){this.location=t,this.dimension=e,this.a=r,this.b=n,this.c=i,this.d=a}function a(t,e,r){this.gl=t,this._ext=e,this.handle=r,this._attribs=[],this._useElements=!1,this._elementsType=t.UNSIGNED_SHORT}i.prototype.bind=function(t){switch(this.dimension){case 1:t.vertexAttrib1f(this.location,this.a);break;case 2:t.vertexAttrib2f(this.location,this.a,this.b);break;case 3:t.vertexAttrib3f(this.location,this.a,this.b,this.c);break;case 4:t.vertexAttrib4f(this.location,this.a,this.b,this.c,this.d)}},a.prototype.bind=function(){this._ext.bindVertexArrayOES(this.handle);for(var t=0;t<this._attribs.length;++t)this._attribs[t].bind(this.gl)},a.prototype.unbind=function(){this._ext.bindVertexArrayOES(null)},a.prototype.dispose=function(){this._ext.deleteVertexArrayOES(this.handle)},a.prototype.update=function(t,e,r){if(this.bind(),n(this.gl,e,t),this.unbind(),this._attribs.length=0,t)for(var a=0;a<t.length;++a){var o=t[a];\\\"number\\\"==typeof o?this._attribs.push(new i(a,1,o)):Array.isArray(o)&&this._attribs.push(new i(a,o.length,o[0],o[1],o[2],o[3]))}this._useElements=!!e,this._elementsType=r||this.gl.UNSIGNED_SHORT},a.prototype.draw=function(t,e,r){r=r||0;var n=this.gl;this._useElements?n.drawElements(t,e,this._elementsType,r):n.drawArrays(t,r,e)},e.exports=function(t,e){return new a(t,e,e.createVertexArrayOES())}},{\\\"./do-bind.js\\\":319}],322:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./lib/vao-native.js\\\"),i=t(\\\"./lib/vao-emulated.js\\\");function a(t){this.bindVertexArrayOES=t.bindVertexArray.bind(t),this.createVertexArrayOES=t.createVertexArray.bind(t),this.deleteVertexArrayOES=t.deleteVertexArray.bind(t)}e.exports=function(t,e,r,o){var s,l=t.createVertexArray?new a(t):t.getExtension(\\\"OES_vertex_array_object\\\");return(s=l?n(t,l):i(t)).update(e,r,o),s}},{\\\"./lib/vao-emulated.js\\\":320,\\\"./lib/vao-native.js\\\":321}],323:[function(t,e,r){e.exports=function(t,e,r){return t[0]=e[0]+r[0],t[1]=e[1]+r[1],t[2]=e[2]+r[2],t}},{}],324:[function(t,e,r){e.exports=function(t,e){var r=n(t[0],t[1],t[2]),o=n(e[0],e[1],e[2]);i(r,r),i(o,o);var s=a(r,o);return s>1?0:Math.acos(s)};var n=t(\\\"./fromValues\\\"),i=t(\\\"./normalize\\\"),a=t(\\\"./dot\\\")},{\\\"./dot\\\":334,\\\"./fromValues\\\":340,\\\"./normalize\\\":351}],325:[function(t,e,r){e.exports=function(t,e){return t[0]=Math.ceil(e[0]),t[1]=Math.ceil(e[1]),t[2]=Math.ceil(e[2]),t}},{}],326:[function(t,e,r){e.exports=function(t){var e=new Float32Array(3);return e[0]=t[0],e[1]=t[1],e[2]=t[2],e}},{}],327:[function(t,e,r){e.exports=function(t,e){return t[0]=e[0],t[1]=e[1],t[2]=e[2],t}},{}],328:[function(t,e,r){e.exports=function(){var t=new Float32Array(3);return t[0]=0,t[1]=0,t[2]=0,t}},{}],329:[function(t,e,r){e.exports=function(t,e,r){var n=e[0],i=e[1],a=e[2],o=r[0],s=r[1],l=r[2];return t[0]=i*l-a*s,t[1]=a*o-n*l,t[2]=n*s-i*o,t}},{}],330:[function(t,e,r){e.exports=t(\\\"./distance\\\")},{\\\"./distance\\\":331}],331:[function(t,e,r){e.exports=function(t,e){var r=e[0]-t[0],n=e[1]-t[1],i=e[2]-t[2];return Math.sqrt(r*r+n*n+i*i)}},{}],332:[function(t,e,r){e.exports=t(\\\"./divide\\\")},{\\\"./divide\\\":333}],333:[function(t,e,r){e.exports=function(t,e,r){return t[0]=e[0]/r[0],t[1]=e[1]/r[1],t[2]=e[2]/r[2],t}},{}],334:[function(t,e,r){e.exports=function(t,e){return t[0]*e[0]+t[1]*e[1]+t[2]*e[2]}},{}],335:[function(t,e,r){e.exports=1e-6},{}],336:[function(t,e,r){e.exports=function(t,e){var r=t[0],i=t[1],a=t[2],o=e[0],s=e[1],l=e[2];return Math.abs(r-o)<=n*Math.max(1,Math.abs(r),Math.abs(o))&&Math.abs(i-s)<=n*Math.max(1,Math.abs(i),Math.abs(s))&&Math.abs(a-l)<=n*Math.max(1,Math.abs(a),Math.abs(l))};var n=t(\\\"./epsilon\\\")},{\\\"./epsilon\\\":335}],337:[function(t,e,r){e.exports=function(t,e){return t[0]===e[0]&&t[1]===e[1]&&t[2]===e[2]}},{}],338:[function(t,e,r){e.exports=function(t,e){return t[0]=Math.floor(e[0]),t[1]=Math.floor(e[1]),t[2]=Math.floor(e[2]),t}},{}],339:[function(t,e,r){e.exports=function(t,e,r,i,a,o){var s,l;e||(e=3);r||(r=0);l=i?Math.min(i*e+r,t.length):t.length;for(s=r;s<l;s+=e)n[0]=t[s],n[1]=t[s+1],n[2]=t[s+2],a(n,n,o),t[s]=n[0],t[s+1]=n[1],t[s+2]=n[2];return t};var n=t(\\\"./create\\\")()},{\\\"./create\\\":328}],340:[function(t,e,r){e.exports=function(t,e,r){var n=new Float32Array(3);return n[0]=t,n[1]=e,n[2]=r,n}},{}],341:[function(t,e,r){e.exports={EPSILON:t(\\\"./epsilon\\\"),create:t(\\\"./create\\\"),clone:t(\\\"./clone\\\"),angle:t(\\\"./angle\\\"),fromValues:t(\\\"./fromValues\\\"),copy:t(\\\"./copy\\\"),set:t(\\\"./set\\\"),equals:t(\\\"./equals\\\"),exactEquals:t(\\\"./exactEquals\\\"),add:t(\\\"./add\\\"),subtract:t(\\\"./subtract\\\"),sub:t(\\\"./sub\\\"),multiply:t(\\\"./multiply\\\"),mul:t(\\\"./mul\\\"),divide:t(\\\"./divide\\\"),div:t(\\\"./div\\\"),min:t(\\\"./min\\\"),max:t(\\\"./max\\\"),floor:t(\\\"./floor\\\"),ceil:t(\\\"./ceil\\\"),round:t(\\\"./round\\\"),scale:t(\\\"./scale\\\"),scaleAndAdd:t(\\\"./scaleAndAdd\\\"),distance:t(\\\"./distance\\\"),dist:t(\\\"./dist\\\"),squaredDistance:t(\\\"./squaredDistance\\\"),sqrDist:t(\\\"./sqrDist\\\"),length:t(\\\"./length\\\"),len:t(\\\"./len\\\"),squaredLength:t(\\\"./squaredLength\\\"),sqrLen:t(\\\"./sqrLen\\\"),negate:t(\\\"./negate\\\"),inverse:t(\\\"./inverse\\\"),normalize:t(\\\"./normalize\\\"),dot:t(\\\"./dot\\\"),cross:t(\\\"./cross\\\"),lerp:t(\\\"./lerp\\\"),random:t(\\\"./random\\\"),transformMat4:t(\\\"./transformMat4\\\"),transformMat3:t(\\\"./transformMat3\\\"),transformQuat:t(\\\"./transformQuat\\\"),rotateX:t(\\\"./rotateX\\\"),rotateY:t(\\\"./rotateY\\\"),rotateZ:t(\\\"./rotateZ\\\"),forEach:t(\\\"./forEach\\\")}},{\\\"./add\\\":323,\\\"./angle\\\":324,\\\"./ceil\\\":325,\\\"./clone\\\":326,\\\"./copy\\\":327,\\\"./create\\\":328,\\\"./cross\\\":329,\\\"./dist\\\":330,\\\"./distance\\\":331,\\\"./div\\\":332,\\\"./divide\\\":333,\\\"./dot\\\":334,\\\"./epsilon\\\":335,\\\"./equals\\\":336,\\\"./exactEquals\\\":337,\\\"./floor\\\":338,\\\"./forEach\\\":339,\\\"./fromValues\\\":340,\\\"./inverse\\\":342,\\\"./len\\\":343,\\\"./length\\\":344,\\\"./lerp\\\":345,\\\"./max\\\":346,\\\"./min\\\":347,\\\"./mul\\\":348,\\\"./multiply\\\":349,\\\"./negate\\\":350,\\\"./normalize\\\":351,\\\"./random\\\":352,\\\"./rotateX\\\":353,\\\"./rotateY\\\":354,\\\"./rotateZ\\\":355,\\\"./round\\\":356,\\\"./scale\\\":357,\\\"./scaleAndAdd\\\":358,\\\"./set\\\":359,\\\"./sqrDist\\\":360,\\\"./sqrLen\\\":361,\\\"./squaredDistance\\\":362,\\\"./squaredLength\\\":363,\\\"./sub\\\":364,\\\"./subtract\\\":365,\\\"./transformMat3\\\":366,\\\"./transformMat4\\\":367,\\\"./transformQuat\\\":368}],342:[function(t,e,r){e.exports=function(t,e){return t[0]=1/e[0],t[1]=1/e[1],t[2]=1/e[2],t}},{}],343:[function(t,e,r){e.exports=t(\\\"./length\\\")},{\\\"./length\\\":344}],344:[function(t,e,r){e.exports=function(t){var e=t[0],r=t[1],n=t[2];return Math.sqrt(e*e+r*r+n*n)}},{}],345:[function(t,e,r){e.exports=function(t,e,r,n){var i=e[0],a=e[1],o=e[2];return t[0]=i+n*(r[0]-i),t[1]=a+n*(r[1]-a),t[2]=o+n*(r[2]-o),t}},{}],346:[function(t,e,r){e.exports=function(t,e,r){return t[0]=Math.max(e[0],r[0]),t[1]=Math.max(e[1],r[1]),t[2]=Math.max(e[2],r[2]),t}},{}],347:[function(t,e,r){e.exports=function(t,e,r){return t[0]=Math.min(e[0],r[0]),t[1]=Math.min(e[1],r[1]),t[2]=Math.min(e[2],r[2]),t}},{}],348:[function(t,e,r){e.exports=t(\\\"./multiply\\\")},{\\\"./multiply\\\":349}],349:[function(t,e,r){e.exports=function(t,e,r){return t[0]=e[0]*r[0],t[1]=e[1]*r[1],t[2]=e[2]*r[2],t}},{}],350:[function(t,e,r){e.exports=function(t,e){return t[0]=-e[0],t[1]=-e[1],t[2]=-e[2],t}},{}],351:[function(t,e,r){e.exports=function(t,e){var r=e[0],n=e[1],i=e[2],a=r*r+n*n+i*i;a>0&&(a=1/Math.sqrt(a),t[0]=e[0]*a,t[1]=e[1]*a,t[2]=e[2]*a);return t}},{}],352:[function(t,e,r){e.exports=function(t,e){e=e||1;var r=2*Math.random()*Math.PI,n=2*Math.random()-1,i=Math.sqrt(1-n*n)*e;return t[0]=Math.cos(r)*i,t[1]=Math.sin(r)*i,t[2]=n*e,t}},{}],353:[function(t,e,r){e.exports=function(t,e,r,n){var i=r[1],a=r[2],o=e[1]-i,s=e[2]-a,l=Math.sin(n),c=Math.cos(n);return t[0]=e[0],t[1]=i+o*c-s*l,t[2]=a+o*l+s*c,t}},{}],354:[function(t,e,r){e.exports=function(t,e,r,n){var i=r[0],a=r[2],o=e[0]-i,s=e[2]-a,l=Math.sin(n),c=Math.cos(n);return t[0]=i+s*l+o*c,t[1]=e[1],t[2]=a+s*c-o*l,t}},{}],355:[function(t,e,r){e.exports=function(t,e,r,n){var i=r[0],a=r[1],o=e[0]-i,s=e[1]-a,l=Math.sin(n),c=Math.cos(n);return t[0]=i+o*c-s*l,t[1]=a+o*l+s*c,t[2]=e[2],t}},{}],356:[function(t,e,r){e.exports=function(t,e){return t[0]=Math.round(e[0]),t[1]=Math.round(e[1]),t[2]=Math.round(e[2]),t}},{}],357:[function(t,e,r){e.exports=function(t,e,r){return t[0]=e[0]*r,t[1]=e[1]*r,t[2]=e[2]*r,t}},{}],358:[function(t,e,r){e.exports=function(t,e,r,n){return t[0]=e[0]+r[0]*n,t[1]=e[1]+r[1]*n,t[2]=e[2]+r[2]*n,t}},{}],359:[function(t,e,r){e.exports=function(t,e,r,n){return t[0]=e,t[1]=r,t[2]=n,t}},{}],360:[function(t,e,r){e.exports=t(\\\"./squaredDistance\\\")},{\\\"./squaredDistance\\\":362}],361:[function(t,e,r){e.exports=t(\\\"./squaredLength\\\")},{\\\"./squaredLength\\\":363}],362:[function(t,e,r){e.exports=function(t,e){var r=e[0]-t[0],n=e[1]-t[1],i=e[2]-t[2];return r*r+n*n+i*i}},{}],363:[function(t,e,r){e.exports=function(t){var e=t[0],r=t[1],n=t[2];return e*e+r*r+n*n}},{}],364:[function(t,e,r){e.exports=t(\\\"./subtract\\\")},{\\\"./subtract\\\":365}],365:[function(t,e,r){e.exports=function(t,e,r){return t[0]=e[0]-r[0],t[1]=e[1]-r[1],t[2]=e[2]-r[2],t}},{}],366:[function(t,e,r){e.exports=function(t,e,r){var n=e[0],i=e[1],a=e[2];return t[0]=n*r[0]+i*r[3]+a*r[6],t[1]=n*r[1]+i*r[4]+a*r[7],t[2]=n*r[2]+i*r[5]+a*r[8],t}},{}],367:[function(t,e,r){e.exports=function(t,e,r){var n=e[0],i=e[1],a=e[2],o=r[3]*n+r[7]*i+r[11]*a+r[15];return o=o||1,t[0]=(r[0]*n+r[4]*i+r[8]*a+r[12])/o,t[1]=(r[1]*n+r[5]*i+r[9]*a+r[13])/o,t[2]=(r[2]*n+r[6]*i+r[10]*a+r[14])/o,t}},{}],368:[function(t,e,r){e.exports=function(t,e,r){var n=e[0],i=e[1],a=e[2],o=r[0],s=r[1],l=r[2],c=r[3],u=c*n+s*a-l*i,f=c*i+l*n-o*a,h=c*a+o*i-s*n,p=-o*n-s*i-l*a;return t[0]=u*c+p*-o+f*-l-h*-s,t[1]=f*c+p*-s+h*-o-u*-l,t[2]=h*c+p*-l+u*-s-f*-o,t}},{}],369:[function(t,e,r){e.exports=function(t,e,r){return t[0]=e[0]+r[0],t[1]=e[1]+r[1],t[2]=e[2]+r[2],t[3]=e[3]+r[3],t}},{}],370:[function(t,e,r){e.exports=function(t){var e=new Float32Array(4);return e[0]=t[0],e[1]=t[1],e[2]=t[2],e[3]=t[3],e}},{}],371:[function(t,e,r){e.exports=function(t,e){return t[0]=e[0],t[1]=e[1],t[2]=e[2],t[3]=e[3],t}},{}],372:[function(t,e,r){e.exports=function(){var t=new Float32Array(4);return t[0]=0,t[1]=0,t[2]=0,t[3]=0,t}},{}],373:[function(t,e,r){e.exports=function(t,e){var r=e[0]-t[0],n=e[1]-t[1],i=e[2]-t[2],a=e[3]-t[3];return Math.sqrt(r*r+n*n+i*i+a*a)}},{}],374:[function(t,e,r){e.exports=function(t,e,r){return t[0]=e[0]/r[0],t[1]=e[1]/r[1],t[2]=e[2]/r[2],t[3]=e[3]/r[3],t}},{}],375:[function(t,e,r){e.exports=function(t,e){return t[0]*e[0]+t[1]*e[1]+t[2]*e[2]+t[3]*e[3]}},{}],376:[function(t,e,r){e.exports=function(t,e,r,n){var i=new Float32Array(4);return i[0]=t,i[1]=e,i[2]=r,i[3]=n,i}},{}],377:[function(t,e,r){e.exports={create:t(\\\"./create\\\"),clone:t(\\\"./clone\\\"),fromValues:t(\\\"./fromValues\\\"),copy:t(\\\"./copy\\\"),set:t(\\\"./set\\\"),add:t(\\\"./add\\\"),subtract:t(\\\"./subtract\\\"),multiply:t(\\\"./multiply\\\"),divide:t(\\\"./divide\\\"),min:t(\\\"./min\\\"),max:t(\\\"./max\\\"),scale:t(\\\"./scale\\\"),scaleAndAdd:t(\\\"./scaleAndAdd\\\"),distance:t(\\\"./distance\\\"),squaredDistance:t(\\\"./squaredDistance\\\"),length:t(\\\"./length\\\"),squaredLength:t(\\\"./squaredLength\\\"),negate:t(\\\"./negate\\\"),inverse:t(\\\"./inverse\\\"),normalize:t(\\\"./normalize\\\"),dot:t(\\\"./dot\\\"),lerp:t(\\\"./lerp\\\"),random:t(\\\"./random\\\"),transformMat4:t(\\\"./transformMat4\\\"),transformQuat:t(\\\"./transformQuat\\\")}},{\\\"./add\\\":369,\\\"./clone\\\":370,\\\"./copy\\\":371,\\\"./create\\\":372,\\\"./distance\\\":373,\\\"./divide\\\":374,\\\"./dot\\\":375,\\\"./fromValues\\\":376,\\\"./inverse\\\":378,\\\"./length\\\":379,\\\"./lerp\\\":380,\\\"./max\\\":381,\\\"./min\\\":382,\\\"./multiply\\\":383,\\\"./negate\\\":384,\\\"./normalize\\\":385,\\\"./random\\\":386,\\\"./scale\\\":387,\\\"./scaleAndAdd\\\":388,\\\"./set\\\":389,\\\"./squaredDistance\\\":390,\\\"./squaredLength\\\":391,\\\"./subtract\\\":392,\\\"./transformMat4\\\":393,\\\"./transformQuat\\\":394}],378:[function(t,e,r){e.exports=function(t,e){return t[0]=1/e[0],t[1]=1/e[1],t[2]=1/e[2],t[3]=1/e[3],t}},{}],379:[function(t,e,r){e.exports=function(t){var e=t[0],r=t[1],n=t[2],i=t[3];return Math.sqrt(e*e+r*r+n*n+i*i)}},{}],380:[function(t,e,r){e.exports=function(t,e,r,n){var i=e[0],a=e[1],o=e[2],s=e[3];return t[0]=i+n*(r[0]-i),t[1]=a+n*(r[1]-a),t[2]=o+n*(r[2]-o),t[3]=s+n*(r[3]-s),t}},{}],381:[function(t,e,r){e.exports=function(t,e,r){return t[0]=Math.max(e[0],r[0]),t[1]=Math.max(e[1],r[1]),t[2]=Math.max(e[2],r[2]),t[3]=Math.max(e[3],r[3]),t}},{}],382:[function(t,e,r){e.exports=function(t,e,r){return t[0]=Math.min(e[0],r[0]),t[1]=Math.min(e[1],r[1]),t[2]=Math.min(e[2],r[2]),t[3]=Math.min(e[3],r[3]),t}},{}],383:[function(t,e,r){e.exports=function(t,e,r){return t[0]=e[0]*r[0],t[1]=e[1]*r[1],t[2]=e[2]*r[2],t[3]=e[3]*r[3],t}},{}],384:[function(t,e,r){e.exports=function(t,e){return t[0]=-e[0],t[1]=-e[1],t[2]=-e[2],t[3]=-e[3],t}},{}],385:[function(t,e,r){e.exports=function(t,e){var r=e[0],n=e[1],i=e[2],a=e[3],o=r*r+n*n+i*i+a*a;o>0&&(o=1/Math.sqrt(o),t[0]=r*o,t[1]=n*o,t[2]=i*o,t[3]=a*o);return t}},{}],386:[function(t,e,r){var n=t(\\\"./normalize\\\"),i=t(\\\"./scale\\\");e.exports=function(t,e){return e=e||1,t[0]=Math.random(),t[1]=Math.random(),t[2]=Math.random(),t[3]=Math.random(),n(t,t),i(t,t,e),t}},{\\\"./normalize\\\":385,\\\"./scale\\\":387}],387:[function(t,e,r){e.exports=function(t,e,r){return t[0]=e[0]*r,t[1]=e[1]*r,t[2]=e[2]*r,t[3]=e[3]*r,t}},{}],388:[function(t,e,r){e.exports=function(t,e,r,n){return t[0]=e[0]+r[0]*n,t[1]=e[1]+r[1]*n,t[2]=e[2]+r[2]*n,t[3]=e[3]+r[3]*n,t}},{}],389:[function(t,e,r){e.exports=function(t,e,r,n,i){return t[0]=e,t[1]=r,t[2]=n,t[3]=i,t}},{}],390:[function(t,e,r){e.exports=function(t,e){var r=e[0]-t[0],n=e[1]-t[1],i=e[2]-t[2],a=e[3]-t[3];return r*r+n*n+i*i+a*a}},{}],391:[function(t,e,r){e.exports=function(t){var e=t[0],r=t[1],n=t[2],i=t[3];return e*e+r*r+n*n+i*i}},{}],392:[function(t,e,r){e.exports=function(t,e,r){return t[0]=e[0]-r[0],t[1]=e[1]-r[1],t[2]=e[2]-r[2],t[3]=e[3]-r[3],t}},{}],393:[function(t,e,r){e.exports=function(t,e,r){var n=e[0],i=e[1],a=e[2],o=e[3];return t[0]=r[0]*n+r[4]*i+r[8]*a+r[12]*o,t[1]=r[1]*n+r[5]*i+r[9]*a+r[13]*o,t[2]=r[2]*n+r[6]*i+r[10]*a+r[14]*o,t[3]=r[3]*n+r[7]*i+r[11]*a+r[15]*o,t}},{}],394:[function(t,e,r){e.exports=function(t,e,r){var n=e[0],i=e[1],a=e[2],o=r[0],s=r[1],l=r[2],c=r[3],u=c*n+s*a-l*i,f=c*i+l*n-o*a,h=c*a+o*i-s*n,p=-o*n-s*i-l*a;return t[0]=u*c+p*-o+f*-l-h*-s,t[1]=f*c+p*-s+h*-o-u*-l,t[2]=h*c+p*-l+u*-s-f*-o,t[3]=e[3],t}},{}],395:[function(t,e,r){e.exports=function(t,e,r,a){return n[0]=a,n[1]=r,n[2]=e,n[3]=t,i[0]};var n=new Uint8Array(4),i=new Float32Array(n.buffer)},{}],396:[function(t,e,r){var n=t(\\\"glsl-tokenizer\\\"),i=t(\\\"atob-lite\\\");e.exports=function(t){for(var e=Array.isArray(t)?t:n(t),r=0;r<e.length;r++){var a=e[r];if(\\\"preprocessor\\\"===a.type){var o=a.data.match(/\\\\#define\\\\s+SHADER_NAME(_B64)?\\\\s+(.+)$/);if(o&&o[2]){var s=o[1],l=o[2];return(s?i(l):l).trim()}}}}},{\\\"atob-lite\\\":65,\\\"glsl-tokenizer\\\":403}],397:[function(t,e,r){e.exports=function(t){var e,r,k,T=0,A=0,M=l,S=[],E=[],C=1,L=0,z=0,O=!1,I=!1,D=\\\"\\\",P=a,R=n;\\\"300 es\\\"===(t=t||{}).version&&(P=s,R=o);return function(t){return E=[],null!==t?function(t){var r;T=0,k=(D+=t).length;for(;e=D[T],T<k;){switch(r=T,M){case u:T=V();break;case f:case h:T=j();break;case p:T=U();break;case d:T=G();break;case _:T=q();break;case g:T=Y();break;case c:T=W();break;case x:T=N();break;case l:T=B()}if(r!==T)switch(D[r]){case\\\"\\\\n\\\":L=0,++C;break;default:++L}}return A+=T,D=D.slice(T),E}(t.replace?t.replace(/\\\\r\\\\n/g,\\\"\\\\n\\\"):t):function(t){S.length&&F(S.join(\\\"\\\"));return M=b,F(\\\"(eof)\\\"),E}()};function F(t){t.length&&E.push({type:w[M],data:t,position:z,line:C,column:L})}function B(){return S=S.length?[]:S,\\\"/\\\"===r&&\\\"*\\\"===e?(z=A+T-1,M=u,r=e,T+1):\\\"/\\\"===r&&\\\"/\\\"===e?(z=A+T-1,M=f,r=e,T+1):\\\"#\\\"===e?(M=h,z=A+T,T):/\\\\s/.test(e)?(M=x,z=A+T,T):(O=/\\\\d/.test(e),I=/[^\\\\w_]/.test(e),z=A+T,M=O?d:I?p:c,T)}function N(){return/[^\\\\s]/g.test(e)?(F(S.join(\\\"\\\")),M=l,T):(S.push(e),r=e,T+1)}function j(){return\\\"\\\\r\\\"!==e&&\\\"\\\\n\\\"!==e||\\\"\\\\\\\\\\\"===r?(S.push(e),r=e,T+1):(F(S.join(\\\"\\\")),M=l,T)}function V(){return\\\"/\\\"===e&&\\\"*\\\"===r?(S.push(e),F(S.join(\\\"\\\")),M=l,T+1):(S.push(e),r=e,T+1)}function U(){if(\\\".\\\"===r&&/\\\\d/.test(e))return M=g,T;if(\\\"/\\\"===r&&\\\"*\\\"===e)return M=u,T;if(\\\"/\\\"===r&&\\\"/\\\"===e)return M=f,T;if(\\\".\\\"===e&&S.length){for(;H(S););return M=g,T}if(\\\";\\\"===e||\\\")\\\"===e||\\\"(\\\"===e){if(S.length)for(;H(S););return F(e),M=l,T+1}var t=2===S.length&&\\\"=\\\"!==e;if(/[\\\\w_\\\\d\\\\s]/.test(e)||t){for(;H(S););return M=l,T}return S.push(e),r=e,T+1}function H(t){for(var e,r,n=0;;){if(e=i.indexOf(t.slice(0,t.length+n).join(\\\"\\\")),r=i[e],-1===e){if(n--+t.length>0)continue;r=t.slice(0,1).join(\\\"\\\")}return F(r),z+=r.length,(S=S.slice(r.length)).length}}function q(){return/[^a-fA-F0-9]/.test(e)?(F(S.join(\\\"\\\")),M=l,T):(S.push(e),r=e,T+1)}function G(){return\\\".\\\"===e?(S.push(e),M=g,r=e,T+1):/[eE]/.test(e)?(S.push(e),M=g,r=e,T+1):\\\"x\\\"===e&&1===S.length&&\\\"0\\\"===S[0]?(M=_,S.push(e),r=e,T+1):/[^\\\\d]/.test(e)?(F(S.join(\\\"\\\")),M=l,T):(S.push(e),r=e,T+1)}function Y(){return\\\"f\\\"===e&&(S.push(e),r=e,T+=1),/[eE]/.test(e)?(S.push(e),r=e,T+1):\\\"-\\\"===e&&/[eE]/.test(r)?(S.push(e),r=e,T+1):/[^\\\\d]/.test(e)?(F(S.join(\\\"\\\")),M=l,T):(S.push(e),r=e,T+1)}function W(){if(/[^\\\\d\\\\w_]/.test(e)){var t=S.join(\\\"\\\");return M=R.indexOf(t)>-1?y:P.indexOf(t)>-1?m:v,F(S.join(\\\"\\\")),M=l,T}return S.push(e),r=e,T+1}};var n=t(\\\"./lib/literals\\\"),i=t(\\\"./lib/operators\\\"),a=t(\\\"./lib/builtins\\\"),o=t(\\\"./lib/literals-300es\\\"),s=t(\\\"./lib/builtins-300es\\\"),l=999,c=9999,u=0,f=1,h=2,p=3,d=4,g=5,v=6,m=7,y=8,x=9,b=10,_=11,w=[\\\"block-comment\\\",\\\"line-comment\\\",\\\"preprocessor\\\",\\\"operator\\\",\\\"integer\\\",\\\"float\\\",\\\"ident\\\",\\\"builtin\\\",\\\"keyword\\\",\\\"whitespace\\\",\\\"eof\\\",\\\"integer\\\"]},{\\\"./lib/builtins\\\":399,\\\"./lib/builtins-300es\\\":398,\\\"./lib/literals\\\":401,\\\"./lib/literals-300es\\\":400,\\\"./lib/operators\\\":402}],398:[function(t,e,r){var n=t(\\\"./builtins\\\");n=n.slice().filter(function(t){return!/^(gl\\\\_|texture)/.test(t)}),e.exports=n.concat([\\\"gl_VertexID\\\",\\\"gl_InstanceID\\\",\\\"gl_Position\\\",\\\"gl_PointSize\\\",\\\"gl_FragCoord\\\",\\\"gl_FrontFacing\\\",\\\"gl_FragDepth\\\",\\\"gl_PointCoord\\\",\\\"gl_MaxVertexAttribs\\\",\\\"gl_MaxVertexUniformVectors\\\",\\\"gl_MaxVertexOutputVectors\\\",\\\"gl_MaxFragmentInputVectors\\\",\\\"gl_MaxVertexTextureImageUnits\\\",\\\"gl_MaxCombinedTextureImageUnits\\\",\\\"gl_MaxTextureImageUnits\\\",\\\"gl_MaxFragmentUniformVectors\\\",\\\"gl_MaxDrawBuffers\\\",\\\"gl_MinProgramTexelOffset\\\",\\\"gl_MaxProgramTexelOffset\\\",\\\"gl_DepthRangeParameters\\\",\\\"gl_DepthRange\\\",\\\"trunc\\\",\\\"round\\\",\\\"roundEven\\\",\\\"isnan\\\",\\\"isinf\\\",\\\"floatBitsToInt\\\",\\\"floatBitsToUint\\\",\\\"intBitsToFloat\\\",\\\"uintBitsToFloat\\\",\\\"packSnorm2x16\\\",\\\"unpackSnorm2x16\\\",\\\"packUnorm2x16\\\",\\\"unpackUnorm2x16\\\",\\\"packHalf2x16\\\",\\\"unpackHalf2x16\\\",\\\"outerProduct\\\",\\\"transpose\\\",\\\"determinant\\\",\\\"inverse\\\",\\\"texture\\\",\\\"textureSize\\\",\\\"textureProj\\\",\\\"textureLod\\\",\\\"textureOffset\\\",\\\"texelFetch\\\",\\\"texelFetchOffset\\\",\\\"textureProjOffset\\\",\\\"textureLodOffset\\\",\\\"textureProjLod\\\",\\\"textureProjLodOffset\\\",\\\"textureGrad\\\",\\\"textureGradOffset\\\",\\\"textureProjGrad\\\",\\\"textureProjGradOffset\\\"])},{\\\"./builtins\\\":399}],399:[function(t,e,r){e.exports=[\\\"abs\\\",\\\"acos\\\",\\\"all\\\",\\\"any\\\",\\\"asin\\\",\\\"atan\\\",\\\"ceil\\\",\\\"clamp\\\",\\\"cos\\\",\\\"cross\\\",\\\"dFdx\\\",\\\"dFdy\\\",\\\"degrees\\\",\\\"distance\\\",\\\"dot\\\",\\\"equal\\\",\\\"exp\\\",\\\"exp2\\\",\\\"faceforward\\\",\\\"floor\\\",\\\"fract\\\",\\\"gl_BackColor\\\",\\\"gl_BackLightModelProduct\\\",\\\"gl_BackLightProduct\\\",\\\"gl_BackMaterial\\\",\\\"gl_BackSecondaryColor\\\",\\\"gl_ClipPlane\\\",\\\"gl_ClipVertex\\\",\\\"gl_Color\\\",\\\"gl_DepthRange\\\",\\\"gl_DepthRangeParameters\\\",\\\"gl_EyePlaneQ\\\",\\\"gl_EyePlaneR\\\",\\\"gl_EyePlaneS\\\",\\\"gl_EyePlaneT\\\",\\\"gl_Fog\\\",\\\"gl_FogCoord\\\",\\\"gl_FogFragCoord\\\",\\\"gl_FogParameters\\\",\\\"gl_FragColor\\\",\\\"gl_FragCoord\\\",\\\"gl_FragData\\\",\\\"gl_FragDepth\\\",\\\"gl_FragDepthEXT\\\",\\\"gl_FrontColor\\\",\\\"gl_FrontFacing\\\",\\\"gl_FrontLightModelProduct\\\",\\\"gl_FrontLightProduct\\\",\\\"gl_FrontMaterial\\\",\\\"gl_FrontSecondaryColor\\\",\\\"gl_LightModel\\\",\\\"gl_LightModelParameters\\\",\\\"gl_LightModelProducts\\\",\\\"gl_LightProducts\\\",\\\"gl_LightSource\\\",\\\"gl_LightSourceParameters\\\",\\\"gl_MaterialParameters\\\",\\\"gl_MaxClipPlanes\\\",\\\"gl_MaxCombinedTextureImageUnits\\\",\\\"gl_MaxDrawBuffers\\\",\\\"gl_MaxFragmentUniformComponents\\\",\\\"gl_MaxLights\\\",\\\"gl_MaxTextureCoords\\\",\\\"gl_MaxTextureImageUnits\\\",\\\"gl_MaxTextureUnits\\\",\\\"gl_MaxVaryingFloats\\\",\\\"gl_MaxVertexAttribs\\\",\\\"gl_MaxVertexTextureImageUnits\\\",\\\"gl_MaxVertexUniformComponents\\\",\\\"gl_ModelViewMatrix\\\",\\\"gl_ModelViewMatrixInverse\\\",\\\"gl_ModelViewMatrixInverseTranspose\\\",\\\"gl_ModelViewMatrixTranspose\\\",\\\"gl_ModelViewProjectionMatrix\\\",\\\"gl_ModelViewProjectionMatrixInverse\\\",\\\"gl_ModelViewProjectionMatrixInverseTranspose\\\",\\\"gl_ModelViewProjectionMatrixTranspose\\\",\\\"gl_MultiTexCoord0\\\",\\\"gl_MultiTexCoord1\\\",\\\"gl_MultiTexCoord2\\\",\\\"gl_MultiTexCoord3\\\",\\\"gl_MultiTexCoord4\\\",\\\"gl_MultiTexCoord5\\\",\\\"gl_MultiTexCoord6\\\",\\\"gl_MultiTexCoord7\\\",\\\"gl_Normal\\\",\\\"gl_NormalMatrix\\\",\\\"gl_NormalScale\\\",\\\"gl_ObjectPlaneQ\\\",\\\"gl_ObjectPlaneR\\\",\\\"gl_ObjectPlaneS\\\",\\\"gl_ObjectPlaneT\\\",\\\"gl_Point\\\",\\\"gl_PointCoord\\\",\\\"gl_PointParameters\\\",\\\"gl_PointSize\\\",\\\"gl_Position\\\",\\\"gl_ProjectionMatrix\\\",\\\"gl_ProjectionMatrixInverse\\\",\\\"gl_ProjectionMatrixInverseTranspose\\\",\\\"gl_ProjectionMatrixTranspose\\\",\\\"gl_SecondaryColor\\\",\\\"gl_TexCoord\\\",\\\"gl_TextureEnvColor\\\",\\\"gl_TextureMatrix\\\",\\\"gl_TextureMatrixInverse\\\",\\\"gl_TextureMatrixInverseTranspose\\\",\\\"gl_TextureMatrixTranspose\\\",\\\"gl_Vertex\\\",\\\"greaterThan\\\",\\\"greaterThanEqual\\\",\\\"inversesqrt\\\",\\\"length\\\",\\\"lessThan\\\",\\\"lessThanEqual\\\",\\\"log\\\",\\\"log2\\\",\\\"matrixCompMult\\\",\\\"max\\\",\\\"min\\\",\\\"mix\\\",\\\"mod\\\",\\\"normalize\\\",\\\"not\\\",\\\"notEqual\\\",\\\"pow\\\",\\\"radians\\\",\\\"reflect\\\",\\\"refract\\\",\\\"sign\\\",\\\"sin\\\",\\\"smoothstep\\\",\\\"sqrt\\\",\\\"step\\\",\\\"tan\\\",\\\"texture2D\\\",\\\"texture2DLod\\\",\\\"texture2DProj\\\",\\\"texture2DProjLod\\\",\\\"textureCube\\\",\\\"textureCubeLod\\\",\\\"texture2DLodEXT\\\",\\\"texture2DProjLodEXT\\\",\\\"textureCubeLodEXT\\\",\\\"texture2DGradEXT\\\",\\\"texture2DProjGradEXT\\\",\\\"textureCubeGradEXT\\\"]},{}],400:[function(t,e,r){var n=t(\\\"./literals\\\");e.exports=n.slice().concat([\\\"layout\\\",\\\"centroid\\\",\\\"smooth\\\",\\\"case\\\",\\\"mat2x2\\\",\\\"mat2x3\\\",\\\"mat2x4\\\",\\\"mat3x2\\\",\\\"mat3x3\\\",\\\"mat3x4\\\",\\\"mat4x2\\\",\\\"mat4x3\\\",\\\"mat4x4\\\",\\\"uint\\\",\\\"uvec2\\\",\\\"uvec3\\\",\\\"uvec4\\\",\\\"samplerCubeShadow\\\",\\\"sampler2DArray\\\",\\\"sampler2DArrayShadow\\\",\\\"isampler2D\\\",\\\"isampler3D\\\",\\\"isamplerCube\\\",\\\"isampler2DArray\\\",\\\"usampler2D\\\",\\\"usampler3D\\\",\\\"usamplerCube\\\",\\\"usampler2DArray\\\",\\\"coherent\\\",\\\"restrict\\\",\\\"readonly\\\",\\\"writeonly\\\",\\\"resource\\\",\\\"atomic_uint\\\",\\\"noperspective\\\",\\\"patch\\\",\\\"sample\\\",\\\"subroutine\\\",\\\"common\\\",\\\"partition\\\",\\\"active\\\",\\\"filter\\\",\\\"image1D\\\",\\\"image2D\\\",\\\"image3D\\\",\\\"imageCube\\\",\\\"iimage1D\\\",\\\"iimage2D\\\",\\\"iimage3D\\\",\\\"iimageCube\\\",\\\"uimage1D\\\",\\\"uimage2D\\\",\\\"uimage3D\\\",\\\"uimageCube\\\",\\\"image1DArray\\\",\\\"image2DArray\\\",\\\"iimage1DArray\\\",\\\"iimage2DArray\\\",\\\"uimage1DArray\\\",\\\"uimage2DArray\\\",\\\"image1DShadow\\\",\\\"image2DShadow\\\",\\\"image1DArrayShadow\\\",\\\"image2DArrayShadow\\\",\\\"imageBuffer\\\",\\\"iimageBuffer\\\",\\\"uimageBuffer\\\",\\\"sampler1DArray\\\",\\\"sampler1DArrayShadow\\\",\\\"isampler1D\\\",\\\"isampler1DArray\\\",\\\"usampler1D\\\",\\\"usampler1DArray\\\",\\\"isampler2DRect\\\",\\\"usampler2DRect\\\",\\\"samplerBuffer\\\",\\\"isamplerBuffer\\\",\\\"usamplerBuffer\\\",\\\"sampler2DMS\\\",\\\"isampler2DMS\\\",\\\"usampler2DMS\\\",\\\"sampler2DMSArray\\\",\\\"isampler2DMSArray\\\",\\\"usampler2DMSArray\\\"])},{\\\"./literals\\\":401}],401:[function(t,e,r){e.exports=[\\\"precision\\\",\\\"highp\\\",\\\"mediump\\\",\\\"lowp\\\",\\\"attribute\\\",\\\"const\\\",\\\"uniform\\\",\\\"varying\\\",\\\"break\\\",\\\"continue\\\",\\\"do\\\",\\\"for\\\",\\\"while\\\",\\\"if\\\",\\\"else\\\",\\\"in\\\",\\\"out\\\",\\\"inout\\\",\\\"float\\\",\\\"int\\\",\\\"void\\\",\\\"bool\\\",\\\"true\\\",\\\"false\\\",\\\"discard\\\",\\\"return\\\",\\\"mat2\\\",\\\"mat3\\\",\\\"mat4\\\",\\\"vec2\\\",\\\"vec3\\\",\\\"vec4\\\",\\\"ivec2\\\",\\\"ivec3\\\",\\\"ivec4\\\",\\\"bvec2\\\",\\\"bvec3\\\",\\\"bvec4\\\",\\\"sampler1D\\\",\\\"sampler2D\\\",\\\"sampler3D\\\",\\\"samplerCube\\\",\\\"sampler1DShadow\\\",\\\"sampler2DShadow\\\",\\\"struct\\\",\\\"asm\\\",\\\"class\\\",\\\"union\\\",\\\"enum\\\",\\\"typedef\\\",\\\"template\\\",\\\"this\\\",\\\"packed\\\",\\\"goto\\\",\\\"switch\\\",\\\"default\\\",\\\"inline\\\",\\\"noinline\\\",\\\"volatile\\\",\\\"public\\\",\\\"static\\\",\\\"extern\\\",\\\"external\\\",\\\"interface\\\",\\\"long\\\",\\\"short\\\",\\\"double\\\",\\\"half\\\",\\\"fixed\\\",\\\"unsigned\\\",\\\"input\\\",\\\"output\\\",\\\"hvec2\\\",\\\"hvec3\\\",\\\"hvec4\\\",\\\"dvec2\\\",\\\"dvec3\\\",\\\"dvec4\\\",\\\"fvec2\\\",\\\"fvec3\\\",\\\"fvec4\\\",\\\"sampler2DRect\\\",\\\"sampler3DRect\\\",\\\"sampler2DRectShadow\\\",\\\"sizeof\\\",\\\"cast\\\",\\\"namespace\\\",\\\"using\\\"]},{}],402:[function(t,e,r){e.exports=[\\\"<<=\\\",\\\">>=\\\",\\\"++\\\",\\\"--\\\",\\\"<<\\\",\\\">>\\\",\\\"<=\\\",\\\">=\\\",\\\"==\\\",\\\"!=\\\",\\\"&&\\\",\\\"||\\\",\\\"+=\\\",\\\"-=\\\",\\\"*=\\\",\\\"/=\\\",\\\"%=\\\",\\\"&=\\\",\\\"^^\\\",\\\"^=\\\",\\\"|=\\\",\\\"(\\\",\\\")\\\",\\\"[\\\",\\\"]\\\",\\\".\\\",\\\"!\\\",\\\"~\\\",\\\"*\\\",\\\"/\\\",\\\"%\\\",\\\"+\\\",\\\"-\\\",\\\"<\\\",\\\">\\\",\\\"&\\\",\\\"^\\\",\\\"|\\\",\\\"?\\\",\\\":\\\",\\\"=\\\",\\\",\\\",\\\";\\\",\\\"{\\\",\\\"}\\\"]},{}],403:[function(t,e,r){var n=t(\\\"./index\\\");e.exports=function(t,e){var r=n(e),i=[];return i=(i=i.concat(r(t))).concat(r(null))}},{\\\"./index\\\":397}],404:[function(t,e,r){e.exports=function(t){\\\"string\\\"==typeof t&&(t=[t]);for(var e=[].slice.call(arguments,1),r=[],n=0;n<t.length-1;n++)r.push(t[n],e[n]||\\\"\\\");return r.push(t[n]),r.join(\\\"\\\")}},{}],405:[function(t,e,r){(function(r){\\\"use strict\\\";var n,i=t(\\\"is-browser\\\");n=\\\"function\\\"==typeof r.matchMedia?!r.matchMedia(\\\"(hover: none)\\\").matches:i,e.exports=n}).call(this,\\\"undefined\\\"!=typeof global?global:\\\"undefined\\\"!=typeof self?self:\\\"undefined\\\"!=typeof window?window:{})},{\\\"is-browser\\\":412}],406:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"is-browser\\\");e.exports=n&&function(){var t=!1;try{var e=Object.defineProperty({},\\\"passive\\\",{get:function(){t=!0}});window.addEventListener(\\\"test\\\",null,e),window.removeEventListener(\\\"test\\\",null,e)}catch(e){t=!1}return t}()},{\\\"is-browser\\\":412}],407:[function(t,e,r){r.read=function(t,e,r,n,i){var a,o,s=8*i-n-1,l=(1<<s)-1,c=l>>1,u=-7,f=r?i-1:0,h=r?-1:1,p=t[e+f];for(f+=h,a=p&(1<<-u)-1,p>>=-u,u+=s;u>0;a=256*a+t[e+f],f+=h,u-=8);for(o=a&(1<<-u)-1,a>>=-u,u+=n;u>0;o=256*o+t[e+f],f+=h,u-=8);if(0===a)a=1-c;else{if(a===l)return o?NaN:1/0*(p?-1:1);o+=Math.pow(2,n),a-=c}return(p?-1:1)*o*Math.pow(2,a-n)},r.write=function(t,e,r,n,i,a){var o,s,l,c=8*a-i-1,u=(1<<c)-1,f=u>>1,h=23===i?Math.pow(2,-24)-Math.pow(2,-77):0,p=n?0:a-1,d=n?1:-1,g=e<0||0===e&&1/e<0?1:0;for(e=Math.abs(e),isNaN(e)||e===1/0?(s=isNaN(e)?1:0,o=u):(o=Math.floor(Math.log(e)/Math.LN2),e*(l=Math.pow(2,-o))<1&&(o--,l*=2),(e+=o+f>=1?h/l:h*Math.pow(2,1-f))*l>=2&&(o++,l/=2),o+f>=u?(s=0,o=u):o+f>=1?(s=(e*l-1)*Math.pow(2,i),o+=f):(s=e*Math.pow(2,f-1)*Math.pow(2,i),o=0));i>=8;t[r+p]=255&s,p+=d,s/=256,i-=8);for(o=o<<i|s,c+=i;c>0;t[r+p]=255&o,p+=d,o/=256,c-=8);t[r+p-d]|=128*g}},{}],408:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){var r=t.length;if(0===r)throw new Error(\\\"Must have at least d+1 points\\\");var i=t[0].length;if(r<=i)throw new Error(\\\"Must input at least d+1 points\\\");var o=t.slice(0,i+1),s=n.apply(void 0,o);if(0===s)throw new Error(\\\"Input not in general position\\\");for(var l=new Array(i+1),u=0;u<=i;++u)l[u]=u;s<0&&(l[0]=1,l[1]=0);for(var f=new a(l,new Array(i+1),!1),h=f.adjacent,p=new Array(i+2),u=0;u<=i;++u){for(var d=l.slice(),g=0;g<=i;++g)g===u&&(d[g]=-1);var v=d[0];d[0]=d[1],d[1]=v;var m=new a(d,new Array(i+1),!0);h[u]=m,p[u]=m}p[i+1]=f;for(var u=0;u<=i;++u)for(var d=h[u].vertices,y=h[u].adjacent,g=0;g<=i;++g){var x=d[g];if(x<0)y[g]=f;else for(var b=0;b<=i;++b)h[b].vertices.indexOf(x)<0&&(y[g]=h[b])}for(var _=new c(i,o,p),w=!!e,u=i+1;u<r;++u)_.insert(t[u],w);return _.boundary()};var n=t(\\\"robust-orientation\\\"),i=t(\\\"simplicial-complex\\\").compareCells;function a(t,e,r){this.vertices=t,this.adjacent=e,this.boundary=r,this.lastVisited=-1}function o(t,e,r){this.vertices=t,this.cell=e,this.index=r}function s(t,e){return i(t.vertices,e.vertices)}a.prototype.flip=function(){var t=this.vertices[0];this.vertices[0]=this.vertices[1],this.vertices[1]=t;var e=this.adjacent[0];this.adjacent[0]=this.adjacent[1],this.adjacent[1]=e};var l=[];function c(t,e,r){this.dimension=t,this.vertices=e,this.simplices=r,this.interior=r.filter(function(t){return!t.boundary}),this.tuple=new Array(t+1);for(var i=0;i<=t;++i)this.tuple[i]=this.vertices[i];var a=l[t];a||(a=l[t]=function(t){for(var e=[\\\"function orient(){var tuple=this.tuple;return test(\\\"],r=0;r<=t;++r)r>0&&e.push(\\\",\\\"),e.push(\\\"tuple[\\\",r,\\\"]\\\");e.push(\\\")}return orient\\\");var i=new Function(\\\"test\\\",e.join(\\\"\\\")),a=n[t+1];return a||(a=n),i(a)}(t)),this.orient=a}var u=c.prototype;u.handleBoundaryDegeneracy=function(t,e){var r=this.dimension,n=this.vertices.length-1,i=this.tuple,a=this.vertices,o=[t];for(t.lastVisited=-n;o.length>0;){(t=o.pop()).vertices;for(var s=t.adjacent,l=0;l<=r;++l){var c=s[l];if(c.boundary&&!(c.lastVisited<=-n)){for(var u=c.vertices,f=0;f<=r;++f){var h=u[f];i[f]=h<0?e:a[h]}var p=this.orient();if(p>0)return c;c.lastVisited=-n,0===p&&o.push(c)}}}return null},u.walk=function(t,e){var r=this.vertices.length-1,n=this.dimension,i=this.vertices,a=this.tuple,o=e?this.interior.length*Math.random()|0:this.interior.length-1,s=this.interior[o];t:for(;!s.boundary;){for(var l=s.vertices,c=s.adjacent,u=0;u<=n;++u)a[u]=i[l[u]];s.lastVisited=r;for(u=0;u<=n;++u){var f=c[u];if(!(f.lastVisited>=r)){var h=a[u];a[u]=t;var p=this.orient();if(a[u]=h,p<0){s=f;continue t}f.boundary?f.lastVisited=-r:f.lastVisited=r}}return}return s},u.addPeaks=function(t,e){var r=this.vertices.length-1,n=this.dimension,i=this.vertices,l=this.tuple,c=this.interior,u=this.simplices,f=[e];e.lastVisited=r,e.vertices[e.vertices.indexOf(-1)]=r,e.boundary=!1,c.push(e);for(var h=[];f.length>0;){var p=(e=f.pop()).vertices,d=e.adjacent,g=p.indexOf(r);if(!(g<0))for(var v=0;v<=n;++v)if(v!==g){var m=d[v];if(m.boundary&&!(m.lastVisited>=r)){var y=m.vertices;if(m.lastVisited!==-r){for(var x=0,b=0;b<=n;++b)y[b]<0?(x=b,l[b]=t):l[b]=i[y[b]];if(this.orient()>0){y[x]=r,m.boundary=!1,c.push(m),f.push(m),m.lastVisited=r;continue}m.lastVisited=-r}var _=m.adjacent,w=p.slice(),k=d.slice(),T=new a(w,k,!0);u.push(T);var A=_.indexOf(e);if(!(A<0)){_[A]=T,k[g]=m,w[v]=-1,k[v]=e,d[v]=T,T.flip();for(b=0;b<=n;++b){var M=w[b];if(!(M<0||M===r)){for(var S=new Array(n-1),E=0,C=0;C<=n;++C){var L=w[C];L<0||C===b||(S[E++]=L)}h.push(new o(S,T,b))}}}}}}h.sort(s);for(v=0;v+1<h.length;v+=2){var z=h[v],O=h[v+1],I=z.index,D=O.index;I<0||D<0||(z.cell.adjacent[z.index]=O.cell,O.cell.adjacent[O.index]=z.cell)}},u.insert=function(t,e){var r=this.vertices;r.push(t);var n=this.walk(t,e);if(n){for(var i=this.dimension,a=this.tuple,o=0;o<=i;++o){var s=n.vertices[o];a[o]=s<0?t:r[s]}var l=this.orient(a);l<0||(0!==l||(n=this.handleBoundaryDegeneracy(n,t)))&&this.addPeaks(t,n)}},u.boundary=function(){for(var t=this.dimension,e=[],r=this.simplices,n=r.length,i=0;i<n;++i){var a=r[i];if(a.boundary){for(var o=new Array(t),s=a.vertices,l=0,c=0,u=0;u<=t;++u)s[u]>=0?o[l++]=s[u]:c=1&u;if(c===(1&t)){var f=o[0];o[0]=o[1],o[1]=f}e.push(o)}}return e}},{\\\"robust-orientation\\\":497,\\\"simplicial-complex\\\":507}],409:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"binary-search-bounds\\\"),i=0,a=1;function o(t,e,r,n,i){this.mid=t,this.left=e,this.right=r,this.leftPoints=n,this.rightPoints=i,this.count=(e?e.count:0)+(r?r.count:0)+n.length}e.exports=function(t){if(!t||0===t.length)return new x(null);return new x(y(t))};var s=o.prototype;function l(t,e){t.mid=e.mid,t.left=e.left,t.right=e.right,t.leftPoints=e.leftPoints,t.rightPoints=e.rightPoints,t.count=e.count}function c(t,e){var r=y(e);t.mid=r.mid,t.left=r.left,t.right=r.right,t.leftPoints=r.leftPoints,t.rightPoints=r.rightPoints,t.count=r.count}function u(t,e){var r=t.intervals([]);r.push(e),c(t,r)}function f(t,e){var r=t.intervals([]),n=r.indexOf(e);return n<0?i:(r.splice(n,1),c(t,r),a)}function h(t,e,r){for(var n=0;n<t.length&&t[n][0]<=e;++n){var i=r(t[n]);if(i)return i}}function p(t,e,r){for(var n=t.length-1;n>=0&&t[n][1]>=e;--n){var i=r(t[n]);if(i)return i}}function d(t,e){for(var r=0;r<t.length;++r){var n=e(t[r]);if(n)return n}}function g(t,e){return t-e}function v(t,e){var r=t[0]-e[0];return r||t[1]-e[1]}function m(t,e){var r=t[1]-e[1];return r||t[0]-e[0]}function y(t){if(0===t.length)return null;for(var e=[],r=0;r<t.length;++r)e.push(t[r][0],t[r][1]);e.sort(g);var n=e[e.length>>1],i=[],a=[],s=[];for(r=0;r<t.length;++r){var l=t[r];l[1]<n?i.push(l):n<l[0]?a.push(l):s.push(l)}var c=s,u=s.slice();return c.sort(v),u.sort(m),new o(n,y(i),y(a),c,u)}function x(t){this.root=t}s.intervals=function(t){return t.push.apply(t,this.leftPoints),this.left&&this.left.intervals(t),this.right&&this.right.intervals(t),t},s.insert=function(t){var e=this.count-this.leftPoints.length;if(this.count+=1,t[1]<this.mid)this.left?4*(this.left.count+1)>3*(e+1)?u(this,t):this.left.insert(t):this.left=y([t]);else if(t[0]>this.mid)this.right?4*(this.right.count+1)>3*(e+1)?u(this,t):this.right.insert(t):this.right=y([t]);else{var r=n.ge(this.leftPoints,t,v),i=n.ge(this.rightPoints,t,m);this.leftPoints.splice(r,0,t),this.rightPoints.splice(i,0,t)}},s.remove=function(t){var e=this.count-this.leftPoints;if(t[1]<this.mid)return this.left?4*(this.right?this.right.count:0)>3*(e-1)?f(this,t):2===(c=this.left.remove(t))?(this.left=null,this.count-=1,a):(c===a&&(this.count-=1),c):i;if(t[0]>this.mid)return this.right?4*(this.left?this.left.count:0)>3*(e-1)?f(this,t):2===(c=this.right.remove(t))?(this.right=null,this.count-=1,a):(c===a&&(this.count-=1),c):i;if(1===this.count)return this.leftPoints[0]===t?2:i;if(1===this.leftPoints.length&&this.leftPoints[0]===t){if(this.left&&this.right){for(var r=this,o=this.left;o.right;)r=o,o=o.right;if(r===this)o.right=this.right;else{var s=this.left,c=this.right;r.count-=o.count,r.right=o.left,o.left=s,o.right=c}l(this,o),this.count=(this.left?this.left.count:0)+(this.right?this.right.count:0)+this.leftPoints.length}else this.left?l(this,this.left):l(this,this.right);return a}for(s=n.ge(this.leftPoints,t,v);s<this.leftPoints.length&&this.leftPoints[s][0]===t[0];++s)if(this.leftPoints[s]===t){this.count-=1,this.leftPoints.splice(s,1);for(c=n.ge(this.rightPoints,t,m);c<this.rightPoints.length&&this.rightPoints[c][1]===t[1];++c)if(this.rightPoints[c]===t)return this.rightPoints.splice(c,1),a}return i},s.queryPoint=function(t,e){if(t<this.mid){if(this.left)if(r=this.left.queryPoint(t,e))return r;return h(this.leftPoints,t,e)}if(t>this.mid){var r;if(this.right)if(r=this.right.queryPoint(t,e))return r;return p(this.rightPoints,t,e)}return d(this.leftPoints,e)},s.queryInterval=function(t,e,r){var n;if(t<this.mid&&this.left&&(n=this.left.queryInterval(t,e,r)))return n;if(e>this.mid&&this.right&&(n=this.right.queryInterval(t,e,r)))return n;return e<this.mid?h(this.leftPoints,e,r):t>this.mid?p(this.rightPoints,t,r):d(this.leftPoints,r)};var b=x.prototype;b.insert=function(t){this.root?this.root.insert(t):this.root=new o(t[0],null,null,[t],[t])},b.remove=function(t){if(this.root){var e=this.root.remove(t);return 2===e&&(this.root=null),e!==i}return!1},b.queryPoint=function(t,e){if(this.root)return this.root.queryPoint(t,e)},b.queryInterval=function(t,e,r){if(t<=e&&this.root)return this.root.queryInterval(t,e,r)},Object.defineProperty(b,\\\"count\\\",{get:function(){return this.root?this.root.count:0}}),Object.defineProperty(b,\\\"intervals\\\",{get:function(){return this.root?this.root.intervals([]):[]}})},{\\\"binary-search-bounds\\\":84}],410:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){e=e||new Array(t.length);for(var r=0;r<t.length;++r)e[t[r]]=r;return e}},{}],411:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){for(var e=new Array(t),r=0;r<t;++r)e[r]=r;return e}},{}],412:[function(t,e,r){e.exports=!0},{}],413:[function(t,e,r){function n(t){return!!t.constructor&&\\\"function\\\"==typeof t.constructor.isBuffer&&t.constructor.isBuffer(t)}e.exports=function(t){return null!=t&&(n(t)||function(t){return\\\"function\\\"==typeof t.readFloatLE&&\\\"function\\\"==typeof t.slice&&n(t.slice(0,0))}(t)||!!t._isBuffer)}},{}],414:[function(t,e,r){\\\"use strict\\\";e.exports=\\\"undefined\\\"!=typeof navigator&&(/MSIE/.test(navigator.userAgent)||/Trident\\\\//.test(navigator.appVersion))},{}],415:[function(t,e,r){\\\"use strict\\\";e.exports=a,e.exports.isMobile=a;var n=/(android|bb\\\\d+|meego).+mobile|avantgo|bada\\\\/|blackberry|blazer|compal|elaine|fennec|hiptop|iemobile|ip(hone|od)|iris|kindle|lge |maemo|midp|mmp|mobile.+firefox|netfront|opera m(ob|in)i|palm( os)?|phone|p(ixi|re)\\\\/|plucker|pocket|psp|series(4|6)0|symbian|treo|up\\\\.(browser|link)|vodafone|wap|windows (ce|phone)|xda|xiino/i,i=/(android|bb\\\\d+|meego).+mobile|avantgo|bada\\\\/|blackberry|blazer|compal|elaine|fennec|hiptop|iemobile|ip(hone|od)|iris|kindle|lge |maemo|midp|mmp|mobile.+firefox|netfront|opera m(ob|in)i|palm( os)?|phone|p(ixi|re)\\\\/|plucker|pocket|psp|series(4|6)0|symbian|treo|up\\\\.(browser|link)|vodafone|wap|windows (ce|phone)|xda|xiino|android|ipad|playbook|silk/i;function a(t){t||(t={});var e=t.ua;return e||\\\"undefined\\\"==typeof navigator||(e=navigator.userAgent),e&&e.headers&&\\\"string\\\"==typeof e.headers[\\\"user-agent\\\"]&&(e=e.headers[\\\"user-agent\\\"]),\\\"string\\\"==typeof e&&(t.tablet?i.test(e):n.test(e))}},{}],416:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=typeof t;return null!==t&&(\\\"object\\\"===e||\\\"function\\\"===e)}},{}],417:[function(t,e,r){\\\"use strict\\\";var n=Object.prototype.toString;e.exports=function(t){var e;return\\\"[object Object]\\\"===n.call(t)&&(null===(e=Object.getPrototypeOf(t))||e===Object.getPrototypeOf({}))}},{}],418:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){for(var e,r=t.length,n=0;n<r;n++)if(((e=t.charCodeAt(n))<9||e>13)&&32!==e&&133!==e&&160!==e&&5760!==e&&6158!==e&&(e<8192||e>8205)&&8232!==e&&8233!==e&&8239!==e&&8287!==e&&8288!==e&&12288!==e&&65279!==e)return!1;return!0}},{}],419:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){return\\\"string\\\"==typeof t&&(t=t.trim(),!!(/^[mzlhvcsqta]\\\\s*[-+.0-9][^mlhvzcsqta]+/i.test(t)&&/[\\\\dz]$/i.test(t)&&t.length>4))}},{}],420:[function(t,e,r){e.exports=function(t,e,r){return t*(1-r)+e*r}},{}],421:[function(t,e,r){(function(t){!function(t,n){\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?e.exports=n():t.mapboxgl=n()}(this,function(){\\\"use strict\\\";var e,r,n;function i(t,i){if(e)if(r){var a=\\\"var sharedChunk = {}; (\\\"+e+\\\")(sharedChunk); (\\\"+r+\\\")(sharedChunk);\\\",o={};e(o),(n=i(o)).workerUrl=window.URL.createObjectURL(new Blob([a],{type:\\\"text/javascript\\\"}))}else r=i;else e=i}return i(0,function(e){var r=\\\"undefined\\\"!=typeof window?window:\\\"undefined\\\"!=typeof t?t:\\\"undefined\\\"!=typeof self?self:{};function n(t){return t&&t.__esModule&&Object.prototype.hasOwnProperty.call(t,\\\"default\\\")?t.default:t}function i(t,e){return t(e={exports:{}},e.exports),e.exports}var a=o;function o(t,e,r,n){this.cx=3*t,this.bx=3*(r-t)-this.cx,this.ax=1-this.cx-this.bx,this.cy=3*e,this.by=3*(n-e)-this.cy,this.ay=1-this.cy-this.by,this.p1x=t,this.p1y=n,this.p2x=r,this.p2y=n}o.prototype.sampleCurveX=function(t){return((this.ax*t+this.bx)*t+this.cx)*t},o.prototype.sampleCurveY=function(t){return((this.ay*t+this.by)*t+this.cy)*t},o.prototype.sampleCurveDerivativeX=function(t){return(3*this.ax*t+2*this.bx)*t+this.cx},o.prototype.solveCurveX=function(t,e){var r,n,i,a,o;for(void 0===e&&(e=1e-6),i=t,o=0;o<8;o++){if(a=this.sampleCurveX(i)-t,Math.abs(a)<e)return i;var s=this.sampleCurveDerivativeX(i);if(Math.abs(s)<1e-6)break;i-=a/s}if((i=t)<(r=0))return r;if(i>(n=1))return n;for(;r<n;){if(a=this.sampleCurveX(i),Math.abs(a-t)<e)return i;t>a?r=i:n=i,i=.5*(n-r)+r}return i},o.prototype.solve=function(t,e){return this.sampleCurveY(this.solveCurveX(t,e))};var s=function(t,e,r){this.column=t,this.row=e,this.zoom=r};s.prototype.clone=function(){return new s(this.column,this.row,this.zoom)},s.prototype.zoomTo=function(t){return this.clone()._zoomTo(t)},s.prototype.sub=function(t){return this.clone()._sub(t)},s.prototype._zoomTo=function(t){var e=Math.pow(2,t-this.zoom);return this.column*=e,this.row*=e,this.zoom=t,this},s.prototype._sub=function(t){return t=t.zoomTo(this.zoom),this.column-=t.column,this.row-=t.row,this};var l=c;function c(t,e){this.x=t,this.y=e}function u(t,e,r,n){var i=new a(t,e,r,n);return function(t){return i.solve(t)}}c.prototype={clone:function(){return new c(this.x,this.y)},add:function(t){return this.clone()._add(t)},sub:function(t){return this.clone()._sub(t)},multByPoint:function(t){return this.clone()._multByPoint(t)},divByPoint:function(t){return this.clone()._divByPoint(t)},mult:function(t){return this.clone()._mult(t)},div:function(t){return this.clone()._div(t)},rotate:function(t){return this.clone()._rotate(t)},rotateAround:function(t,e){return this.clone()._rotateAround(t,e)},matMult:function(t){return this.clone()._matMult(t)},unit:function(){return this.clone()._unit()},perp:function(){return this.clone()._perp()},round:function(){return this.clone()._round()},mag:function(){return Math.sqrt(this.x*this.x+this.y*this.y)},equals:function(t){return this.x===t.x&&this.y===t.y},dist:function(t){return Math.sqrt(this.distSqr(t))},distSqr:function(t){var e=t.x-this.x,r=t.y-this.y;return e*e+r*r},angle:function(){return Math.atan2(this.y,this.x)},angleTo:function(t){return Math.atan2(this.y-t.y,this.x-t.x)},angleWith:function(t){return this.angleWithSep(t.x,t.y)},angleWithSep:function(t,e){return Math.atan2(this.x*e-this.y*t,this.x*t+this.y*e)},_matMult:function(t){var e=t[0]*this.x+t[1]*this.y,r=t[2]*this.x+t[3]*this.y;return this.x=e,this.y=r,this},_add:function(t){return this.x+=t.x,this.y+=t.y,this},_sub:function(t){return this.x-=t.x,this.y-=t.y,this},_mult:function(t){return this.x*=t,this.y*=t,this},_div:function(t){return this.x/=t,this.y/=t,this},_multByPoint:function(t){return this.x*=t.x,this.y*=t.y,this},_divByPoint:function(t){return this.x/=t.x,this.y/=t.y,this},_unit:function(){return this._div(this.mag()),this},_perp:function(){var t=this.y;return this.y=this.x,this.x=-t,this},_rotate:function(t){var e=Math.cos(t),r=Math.sin(t),n=e*this.x-r*this.y,i=r*this.x+e*this.y;return this.x=n,this.y=i,this},_rotateAround:function(t,e){var r=Math.cos(t),n=Math.sin(t),i=e.x+r*(this.x-e.x)-n*(this.y-e.y),a=e.y+n*(this.x-e.x)+r*(this.y-e.y);return this.x=i,this.y=a,this},_round:function(){return this.x=Math.round(this.x),this.y=Math.round(this.y),this}},c.convert=function(t){return t instanceof c?t:Array.isArray(t)?new c(t[0],t[1]):t};var f=u(.25,.1,.25,1);function h(t,e,r){return Math.min(r,Math.max(e,t))}function p(t){for(var e=[],r=arguments.length-1;r-- >0;)e[r]=arguments[r+1];for(var n=0,i=e;n<i.length;n+=1){var a=i[n];for(var o in a)t[o]=a[o]}return t}var d=1;function g(t,e){t.forEach(function(t){e[t]&&(e[t]=e[t].bind(e))})}function v(t,e){return-1!==t.indexOf(e,t.length-e.length)}function m(t,e,r){var n={};for(var i in t)n[i]=e.call(r||this,t[i],i,t);return n}function y(t,e,r){var n={};for(var i in t)e.call(r||this,t[i],i,t)&&(n[i]=t[i]);return n}function x(t){return Array.isArray(t)?t.map(x):\\\"object\\\"==typeof t&&t?m(t,x):t}var b={};function _(t){b[t]||(\\\"undefined\\\"!=typeof console&&console.warn(t),b[t]=!0)}function w(t,e,r){return(r.y-t.y)*(e.x-t.x)>(e.y-t.y)*(r.x-t.x)}function k(t){for(var e=0,r=0,n=t.length,i=n-1,a=void 0,o=void 0;r<n;i=r++)a=t[r],e+=((o=t[i]).x-a.x)*(a.y+o.y);return e}var T={Unknown:\\\"Unknown\\\",Style:\\\"Style\\\",Source:\\\"Source\\\",Tile:\\\"Tile\\\",Glyphs:\\\"Glyphs\\\",SpriteImage:\\\"SpriteImage\\\",SpriteJSON:\\\"SpriteJSON\\\",Image:\\\"Image\\\"};\\\"function\\\"==typeof Object.freeze&&Object.freeze(T);var A=function(t){function e(e,r,n){t.call(this,e),this.status=r,this.url=n,this.name=this.constructor.name,this.message=e}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.toString=function(){return this.name+\\\": \\\"+this.message+\\\" (\\\"+this.status+\\\"): \\\"+this.url},e}(Error);function M(t){var e=new self.XMLHttpRequest;for(var r in e.open(\\\"GET\\\",t.url,!0),t.headers)e.setRequestHeader(r,t.headers[r]);return e.withCredentials=\\\"include\\\"===t.credentials,e}var S=function(t,e){var r=M(t);return r.responseType=\\\"arraybuffer\\\",r.onerror=function(){e(new Error(r.statusText))},r.onload=function(){var n=r.response;if(0===n.byteLength&&200===r.status)return e(new Error(\\\"http status 200 returned without content.\\\"));r.status>=200&&r.status<300&&r.response?e(null,{data:n,cacheControl:r.getResponseHeader(\\\"Cache-Control\\\"),expires:r.getResponseHeader(\\\"Expires\\\")}):e(new A(r.statusText,r.status,t.url))},r.send(),r};function E(t,e,r){r[t]=r[t]||[],r[t].push(e)}function C(t,e,r){if(r&&r[t]){var n=r[t].indexOf(e);-1!==n&&r[t].splice(n,1)}}var L=function(t,e){void 0===e&&(e={}),p(this,e),this.type=t},z=function(t){function e(e,r){void 0===r&&(r={}),t.call(this,\\\"error\\\",p({error:e},r))}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e}(L),O=function(){};O.prototype.on=function(t,e){return this._listeners=this._listeners||{},E(t,e,this._listeners),this},O.prototype.off=function(t,e){return C(t,e,this._listeners),C(t,e,this._oneTimeListeners),this},O.prototype.once=function(t,e){return this._oneTimeListeners=this._oneTimeListeners||{},E(t,e,this._oneTimeListeners),this},O.prototype.fire=function(t){\\\"string\\\"==typeof t&&(t=new L(t,arguments[1]||{}));var e=t.type;if(this.listens(e)){t.target=this;for(var r=0,n=this._listeners&&this._listeners[e]?this._listeners[e].slice():[];r<n.length;r+=1)n[r].call(this,t);for(var i=0,a=this._oneTimeListeners&&this._oneTimeListeners[e]?this._oneTimeListeners[e].slice():[];i<a.length;i+=1){var o=a[i];C(e,o,this._oneTimeListeners),o.call(this,t)}var s=this._eventedParent;s&&(p(t,\\\"function\\\"==typeof this._eventedParentData?this._eventedParentData():this._eventedParentData),s.fire(t))}else v(e,\\\"error\\\")?console.error(t&&t.error||t||\\\"Empty error event\\\"):v(e,\\\"warning\\\")&&console.warn(t&&t.warning||t||\\\"Empty warning event\\\");return this},O.prototype.listens=function(t){return this._listeners&&this._listeners[t]&&this._listeners[t].length>0||this._oneTimeListeners&&this._oneTimeListeners[t]&&this._oneTimeListeners[t].length>0||this._eventedParent&&this._eventedParent.listens(t)},O.prototype.setEventedParent=function(t,e){return this._eventedParent=t,this._eventedParentData=e,this};var I={$version:8,$root:{version:{required:!0,type:\\\"enum\\\",values:[8]},name:{type:\\\"string\\\"},metadata:{type:\\\"*\\\"},center:{type:\\\"array\\\",value:\\\"number\\\"},zoom:{type:\\\"number\\\"},bearing:{type:\\\"number\\\",default:0,period:360,units:\\\"degrees\\\"},pitch:{type:\\\"number\\\",default:0,units:\\\"degrees\\\"},light:{type:\\\"light\\\"},sources:{required:!0,type:\\\"sources\\\"},sprite:{type:\\\"string\\\"},glyphs:{type:\\\"string\\\"},transition:{type:\\\"transition\\\"},layers:{required:!0,type:\\\"array\\\",value:\\\"layer\\\"}},sources:{\\\"*\\\":{type:\\\"source\\\"}},source:[\\\"source_vector\\\",\\\"source_raster\\\",\\\"source_raster_dem\\\",\\\"source_geojson\\\",\\\"source_video\\\",\\\"source_image\\\"],source_vector:{type:{required:!0,type:\\\"enum\\\",values:{vector:{}}},url:{type:\\\"string\\\"},tiles:{type:\\\"array\\\",value:\\\"string\\\"},bounds:{type:\\\"array\\\",value:\\\"number\\\",length:4,default:[-180,-85.0511,180,85.0511]},minzoom:{type:\\\"number\\\",default:0},maxzoom:{type:\\\"number\\\",default:22},attribution:{type:\\\"string\\\"},\\\"*\\\":{type:\\\"*\\\"}},source_raster:{type:{required:!0,type:\\\"enum\\\",values:{raster:{}}},url:{type:\\\"string\\\"},tiles:{type:\\\"array\\\",value:\\\"string\\\"},bounds:{type:\\\"array\\\",value:\\\"number\\\",length:4,default:[-180,-85.0511,180,85.0511]},minzoom:{type:\\\"number\\\",default:0},maxzoom:{type:\\\"number\\\",default:22},tileSize:{type:\\\"number\\\",default:512,units:\\\"pixels\\\"},scheme:{type:\\\"enum\\\",values:{xyz:{},tms:{}},default:\\\"xyz\\\"},attribution:{type:\\\"string\\\"},\\\"*\\\":{type:\\\"*\\\"}},source_raster_dem:{type:{required:!0,type:\\\"enum\\\",values:{\\\"raster-dem\\\":{}}},url:{type:\\\"string\\\"},tiles:{type:\\\"array\\\",value:\\\"string\\\"},bounds:{type:\\\"array\\\",value:\\\"number\\\",length:4,default:[-180,-85.0511,180,85.0511]},minzoom:{type:\\\"number\\\",default:0},maxzoom:{type:\\\"number\\\",default:22},tileSize:{type:\\\"number\\\",default:512,units:\\\"pixels\\\"},attribution:{type:\\\"string\\\"},encoding:{type:\\\"enum\\\",values:{terrarium:{},mapbox:{}},default:\\\"mapbox\\\"},\\\"*\\\":{type:\\\"*\\\"}},source_geojson:{type:{required:!0,type:\\\"enum\\\",values:{geojson:{}}},data:{type:\\\"*\\\"},maxzoom:{type:\\\"number\\\",default:18},buffer:{type:\\\"number\\\",default:128,maximum:512,minimum:0},tolerance:{type:\\\"number\\\",default:.375},cluster:{type:\\\"boolean\\\",default:!1},clusterRadius:{type:\\\"number\\\",default:50,minimum:0},clusterMaxZoom:{type:\\\"number\\\"},lineMetrics:{type:\\\"boolean\\\",default:!1}},source_video:{type:{required:!0,type:\\\"enum\\\",values:{video:{}}},urls:{required:!0,type:\\\"array\\\",value:\\\"string\\\"},coordinates:{required:!0,type:\\\"array\\\",length:4,value:{type:\\\"array\\\",length:2,value:\\\"number\\\"}}},source_image:{type:{required:!0,type:\\\"enum\\\",values:{image:{}}},url:{required:!0,type:\\\"string\\\"},coordinates:{required:!0,type:\\\"array\\\",length:4,value:{type:\\\"array\\\",length:2,value:\\\"number\\\"}}},layer:{id:{type:\\\"string\\\",required:!0},type:{type:\\\"enum\\\",values:{fill:{},line:{},symbol:{},circle:{},heatmap:{},\\\"fill-extrusion\\\":{},raster:{},hillshade:{},background:{}},required:!0},metadata:{type:\\\"*\\\"},source:{type:\\\"string\\\"},\\\"source-layer\\\":{type:\\\"string\\\"},minzoom:{type:\\\"number\\\",minimum:0,maximum:24},maxzoom:{type:\\\"number\\\",minimum:0,maximum:24},filter:{type:\\\"filter\\\"},layout:{type:\\\"layout\\\"},paint:{type:\\\"paint\\\"}},layout:[\\\"layout_fill\\\",\\\"layout_line\\\",\\\"layout_circle\\\",\\\"layout_heatmap\\\",\\\"layout_fill-extrusion\\\",\\\"layout_symbol\\\",\\\"layout_raster\\\",\\\"layout_hillshade\\\",\\\"layout_background\\\"],layout_background:{visibility:{type:\\\"enum\\\",values:{visible:{},none:{}},default:\\\"visible\\\"}},layout_fill:{visibility:{type:\\\"enum\\\",values:{visible:{},none:{}},default:\\\"visible\\\"}},layout_circle:{visibility:{type:\\\"enum\\\",values:{visible:{},none:{}},default:\\\"visible\\\"}},layout_heatmap:{visibility:{type:\\\"enum\\\",values:{visible:{},none:{}},default:\\\"visible\\\"}},layout_line:{\\\"line-cap\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,values:{butt:{},round:{},square:{}},default:\\\"butt\\\"},\\\"line-join\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,values:{bevel:{},round:{},miter:{}},default:\\\"miter\\\"},\\\"line-miter-limit\\\":{type:\\\"number\\\",default:2,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,requires:[{\\\"line-join\\\":\\\"miter\\\"}]},\\\"line-round-limit\\\":{type:\\\"number\\\",default:1.05,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,requires:[{\\\"line-join\\\":\\\"round\\\"}]},visibility:{type:\\\"enum\\\",values:{visible:{},none:{}},default:\\\"visible\\\"}},layout_symbol:{\\\"symbol-placement\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,values:{point:{},line:{}},default:\\\"point\\\"},\\\"symbol-spacing\\\":{type:\\\"number\\\",default:250,minimum:1,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,units:\\\"pixels\\\",requires:[{\\\"symbol-placement\\\":\\\"line\\\"}]},\\\"symbol-avoid-edges\\\":{type:\\\"boolean\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,default:!1},\\\"icon-allow-overlap\\\":{type:\\\"boolean\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,default:!1,requires:[\\\"icon-image\\\"]},\\\"icon-ignore-placement\\\":{type:\\\"boolean\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,default:!1,requires:[\\\"icon-image\\\"]},\\\"icon-optional\\\":{type:\\\"boolean\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,default:!1,requires:[\\\"icon-image\\\",\\\"text-field\\\"]},\\\"icon-rotation-alignment\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,values:{map:{},viewport:{},auto:{}},default:\\\"auto\\\",requires:[\\\"icon-image\\\"]},\\\"icon-size\\\":{type:\\\"number\\\",default:1,minimum:0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,units:\\\"factor of the original icon size\\\",requires:[\\\"icon-image\\\"]},\\\"icon-text-fit\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,values:{none:{},width:{},height:{},both:{}},default:\\\"none\\\",requires:[\\\"icon-image\\\",\\\"text-field\\\"]},\\\"icon-text-fit-padding\\\":{type:\\\"array\\\",value:\\\"number\\\",length:4,default:[0,0,0,0],units:\\\"pixels\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,requires:[\\\"icon-image\\\",\\\"text-field\\\",{\\\"icon-text-fit\\\":[\\\"both\\\",\\\"width\\\",\\\"height\\\"]}]},\\\"icon-image\\\":{type:\\\"string\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,tokens:!0},\\\"icon-rotate\\\":{type:\\\"number\\\",default:0,period:360,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,units:\\\"degrees\\\",requires:[\\\"icon-image\\\"]},\\\"icon-padding\\\":{type:\\\"number\\\",default:2,minimum:0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,units:\\\"pixels\\\",requires:[\\\"icon-image\\\"]},\\\"icon-keep-upright\\\":{type:\\\"boolean\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,default:!1,requires:[\\\"icon-image\\\",{\\\"icon-rotation-alignment\\\":\\\"map\\\"},{\\\"symbol-placement\\\":\\\"line\\\"}]},\\\"icon-offset\\\":{type:\\\"array\\\",value:\\\"number\\\",length:2,default:[0,0],function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,requires:[\\\"icon-image\\\"]},\\\"icon-anchor\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,values:{center:{},left:{},right:{},top:{},bottom:{},\\\"top-left\\\":{},\\\"top-right\\\":{},\\\"bottom-left\\\":{},\\\"bottom-right\\\":{}},default:\\\"center\\\",requires:[\\\"icon-image\\\"]},\\\"icon-pitch-alignment\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,values:{map:{},viewport:{},auto:{}},default:\\\"auto\\\",requires:[\\\"icon-image\\\"]},\\\"text-pitch-alignment\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,values:{map:{},viewport:{},auto:{}},default:\\\"auto\\\",requires:[\\\"text-field\\\"]},\\\"text-rotation-alignment\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,values:{map:{},viewport:{},auto:{}},default:\\\"auto\\\",requires:[\\\"text-field\\\"]},\\\"text-field\\\":{type:\\\"string\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,default:\\\"\\\",tokens:!0},\\\"text-font\\\":{type:\\\"array\\\",value:\\\"string\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,default:[\\\"Open Sans Regular\\\",\\\"Arial Unicode MS Regular\\\"],requires:[\\\"text-field\\\"]},\\\"text-size\\\":{type:\\\"number\\\",default:16,minimum:0,units:\\\"pixels\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,requires:[\\\"text-field\\\"]},\\\"text-max-width\\\":{type:\\\"number\\\",default:10,minimum:0,units:\\\"ems\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,requires:[\\\"text-field\\\"]},\\\"text-line-height\\\":{type:\\\"number\\\",default:1.2,units:\\\"ems\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,requires:[\\\"text-field\\\"]},\\\"text-letter-spacing\\\":{type:\\\"number\\\",default:0,units:\\\"ems\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,requires:[\\\"text-field\\\"]},\\\"text-justify\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,values:{left:{},center:{},right:{}},default:\\\"center\\\",requires:[\\\"text-field\\\"]},\\\"text-anchor\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,values:{center:{},left:{},right:{},top:{},bottom:{},\\\"top-left\\\":{},\\\"top-right\\\":{},\\\"bottom-left\\\":{},\\\"bottom-right\\\":{}},default:\\\"center\\\",requires:[\\\"text-field\\\"]},\\\"text-max-angle\\\":{type:\\\"number\\\",default:45,units:\\\"degrees\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,requires:[\\\"text-field\\\",{\\\"symbol-placement\\\":\\\"line\\\"}]},\\\"text-rotate\\\":{type:\\\"number\\\",default:0,period:360,units:\\\"degrees\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,requires:[\\\"text-field\\\"]},\\\"text-padding\\\":{type:\\\"number\\\",default:2,minimum:0,units:\\\"pixels\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,requires:[\\\"text-field\\\"]},\\\"text-keep-upright\\\":{type:\\\"boolean\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,default:!0,requires:[\\\"text-field\\\",{\\\"text-rotation-alignment\\\":\\\"map\\\"},{\\\"symbol-placement\\\":\\\"line\\\"}]},\\\"text-transform\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,values:{none:{},uppercase:{},lowercase:{}},default:\\\"none\\\",requires:[\\\"text-field\\\"]},\\\"text-offset\\\":{type:\\\"array\\\",value:\\\"number\\\",units:\\\"ems\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,length:2,default:[0,0],requires:[\\\"text-field\\\"]},\\\"text-allow-overlap\\\":{type:\\\"boolean\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,default:!1,requires:[\\\"text-field\\\"]},\\\"text-ignore-placement\\\":{type:\\\"boolean\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,default:!1,requires:[\\\"text-field\\\"]},\\\"text-optional\\\":{type:\\\"boolean\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,default:!1,requires:[\\\"text-field\\\",\\\"icon-image\\\"]},visibility:{type:\\\"enum\\\",values:{visible:{},none:{}},default:\\\"visible\\\"}},layout_raster:{visibility:{type:\\\"enum\\\",values:{visible:{},none:{}},default:\\\"visible\\\"}},layout_hillshade:{visibility:{type:\\\"enum\\\",values:{visible:{},none:{}},default:\\\"visible\\\"}},filter:{type:\\\"array\\\",value:\\\"*\\\"},filter_operator:{type:\\\"enum\\\",values:{\\\"==\\\":{},\\\"!=\\\":{},\\\">\\\":{},\\\">=\\\":{},\\\"<\\\":{},\\\"<=\\\":{},in:{},\\\"!in\\\":{},all:{},any:{},none:{},has:{},\\\"!has\\\":{}}},geometry_type:{type:\\\"enum\\\",values:{Point:{},LineString:{},Polygon:{}}},function_stop:{type:\\\"array\\\",minimum:0,maximum:22,value:[\\\"number\\\",\\\"color\\\"],length:2},expression:{type:\\\"array\\\",value:\\\"*\\\",minimum:1},expression_name:{type:\\\"enum\\\",values:{let:{group:\\\"Variable binding\\\"},var:{group:\\\"Variable binding\\\"},literal:{group:\\\"Types\\\"},array:{group:\\\"Types\\\"},at:{group:\\\"Lookup\\\"},case:{group:\\\"Decision\\\"},match:{group:\\\"Decision\\\"},coalesce:{group:\\\"Decision\\\"},step:{group:\\\"Ramps, scales, curves\\\"},interpolate:{group:\\\"Ramps, scales, curves\\\"},ln2:{group:\\\"Math\\\"},pi:{group:\\\"Math\\\"},e:{group:\\\"Math\\\"},typeof:{group:\\\"Types\\\"},string:{group:\\\"Types\\\"},number:{group:\\\"Types\\\"},boolean:{group:\\\"Types\\\"},object:{group:\\\"Types\\\"},collator:{group:\\\"Types\\\"},\\\"to-string\\\":{group:\\\"Types\\\"},\\\"to-number\\\":{group:\\\"Types\\\"},\\\"to-boolean\\\":{group:\\\"Types\\\"},\\\"to-rgba\\\":{group:\\\"Color\\\"},\\\"to-color\\\":{group:\\\"Types\\\"},rgb:{group:\\\"Color\\\"},rgba:{group:\\\"Color\\\"},get:{group:\\\"Lookup\\\"},has:{group:\\\"Lookup\\\"},length:{group:\\\"Lookup\\\"},properties:{group:\\\"Feature data\\\"},\\\"geometry-type\\\":{group:\\\"Feature data\\\"},id:{group:\\\"Feature data\\\"},zoom:{group:\\\"Zoom\\\"},\\\"heatmap-density\\\":{group:\\\"Heatmap\\\"},\\\"line-progress\\\":{group:\\\"Heatmap\\\"},\\\"+\\\":{group:\\\"Math\\\"},\\\"*\\\":{group:\\\"Math\\\"},\\\"-\\\":{group:\\\"Math\\\"},\\\"/\\\":{group:\\\"Math\\\"},\\\"%\\\":{group:\\\"Math\\\"},\\\"^\\\":{group:\\\"Math\\\"},sqrt:{group:\\\"Math\\\"},log10:{group:\\\"Math\\\"},ln:{group:\\\"Math\\\"},log2:{group:\\\"Math\\\"},sin:{group:\\\"Math\\\"},cos:{group:\\\"Math\\\"},tan:{group:\\\"Math\\\"},asin:{group:\\\"Math\\\"},acos:{group:\\\"Math\\\"},atan:{group:\\\"Math\\\"},min:{group:\\\"Math\\\"},max:{group:\\\"Math\\\"},round:{group:\\\"Math\\\"},abs:{group:\\\"Math\\\"},ceil:{group:\\\"Math\\\"},floor:{group:\\\"Math\\\"},\\\"==\\\":{group:\\\"Decision\\\"},\\\"!=\\\":{group:\\\"Decision\\\"},\\\">\\\":{group:\\\"Decision\\\"},\\\"<\\\":{group:\\\"Decision\\\"},\\\">=\\\":{group:\\\"Decision\\\"},\\\"<=\\\":{group:\\\"Decision\\\"},all:{group:\\\"Decision\\\"},any:{group:\\\"Decision\\\"},\\\"!\\\":{group:\\\"Decision\\\"},\\\"is-supported-script\\\":{group:\\\"String\\\"},upcase:{group:\\\"String\\\"},downcase:{group:\\\"String\\\"},concat:{group:\\\"String\\\"},\\\"resolved-locale\\\":{group:\\\"String\\\"}}},light:{anchor:{type:\\\"enum\\\",default:\\\"viewport\\\",values:{map:{},viewport:{}},transition:!1,\\\"zoom-function\\\":!0,\\\"property-function\\\":!1,function:\\\"piecewise-constant\\\"},position:{type:\\\"array\\\",default:[1.15,210,30],length:3,value:\\\"number\\\",transition:!0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!1},color:{type:\\\"color\\\",default:\\\"#ffffff\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!1,transition:!0},intensity:{type:\\\"number\\\",default:.5,minimum:0,maximum:1,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!1,transition:!0}},paint:[\\\"paint_fill\\\",\\\"paint_line\\\",\\\"paint_circle\\\",\\\"paint_heatmap\\\",\\\"paint_fill-extrusion\\\",\\\"paint_symbol\\\",\\\"paint_raster\\\",\\\"paint_hillshade\\\",\\\"paint_background\\\"],paint_fill:{\\\"fill-antialias\\\":{type:\\\"boolean\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,default:!0},\\\"fill-opacity\\\":{type:\\\"number\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,default:1,minimum:0,maximum:1,transition:!0},\\\"fill-color\\\":{type:\\\"color\\\",default:\\\"#000000\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,requires:[{\\\"!\\\":\\\"fill-pattern\\\"}]},\\\"fill-outline-color\\\":{type:\\\"color\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,requires:[{\\\"!\\\":\\\"fill-pattern\\\"},{\\\"fill-antialias\\\":!0}]},\\\"fill-translate\\\":{type:\\\"array\\\",value:\\\"number\\\",length:2,default:[0,0],function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!0,units:\\\"pixels\\\"},\\\"fill-translate-anchor\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,values:{map:{},viewport:{}},default:\\\"map\\\",requires:[\\\"fill-translate\\\"]},\\\"fill-pattern\\\":{type:\\\"string\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,transition:!0}},paint_line:{\\\"line-opacity\\\":{type:\\\"number\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,default:1,minimum:0,maximum:1,transition:!0},\\\"line-color\\\":{type:\\\"color\\\",default:\\\"#000000\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,requires:[{\\\"!\\\":\\\"line-pattern\\\"}]},\\\"line-translate\\\":{type:\\\"array\\\",value:\\\"number\\\",length:2,default:[0,0],function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!0,units:\\\"pixels\\\"},\\\"line-translate-anchor\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,values:{map:{},viewport:{}},default:\\\"map\\\",requires:[\\\"line-translate\\\"]},\\\"line-width\\\":{type:\\\"number\\\",default:1,minimum:0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,units:\\\"pixels\\\"},\\\"line-gap-width\\\":{type:\\\"number\\\",default:0,minimum:0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,units:\\\"pixels\\\"},\\\"line-offset\\\":{type:\\\"number\\\",default:0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,units:\\\"pixels\\\"},\\\"line-blur\\\":{type:\\\"number\\\",default:0,minimum:0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,units:\\\"pixels\\\"},\\\"line-dasharray\\\":{type:\\\"array\\\",value:\\\"number\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,minimum:0,transition:!0,units:\\\"line widths\\\",requires:[{\\\"!\\\":\\\"line-pattern\\\"}]},\\\"line-pattern\\\":{type:\\\"string\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,transition:!0},\\\"line-gradient\\\":{type:\\\"color\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!1,\\\"property-function\\\":!1,transition:!1,requires:[{\\\"!\\\":\\\"line-dasharray\\\"},{\\\"!\\\":\\\"line-pattern\\\"},{source:\\\"geojson\\\",has:{lineMetrics:!0}}]}},paint_circle:{\\\"circle-radius\\\":{type:\\\"number\\\",default:5,minimum:0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,units:\\\"pixels\\\"},\\\"circle-color\\\":{type:\\\"color\\\",default:\\\"#000000\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0},\\\"circle-blur\\\":{type:\\\"number\\\",default:0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0},\\\"circle-opacity\\\":{type:\\\"number\\\",default:1,minimum:0,maximum:1,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0},\\\"circle-translate\\\":{type:\\\"array\\\",value:\\\"number\\\",length:2,default:[0,0],function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!0,units:\\\"pixels\\\"},\\\"circle-translate-anchor\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,values:{map:{},viewport:{}},default:\\\"map\\\",requires:[\\\"circle-translate\\\"]},\\\"circle-pitch-scale\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,values:{map:{},viewport:{}},default:\\\"map\\\"},\\\"circle-pitch-alignment\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,values:{map:{},viewport:{}},default:\\\"viewport\\\"},\\\"circle-stroke-width\\\":{type:\\\"number\\\",default:0,minimum:0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,units:\\\"pixels\\\"},\\\"circle-stroke-color\\\":{type:\\\"color\\\",default:\\\"#000000\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0},\\\"circle-stroke-opacity\\\":{type:\\\"number\\\",default:1,minimum:0,maximum:1,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0}},paint_heatmap:{\\\"heatmap-radius\\\":{type:\\\"number\\\",default:30,minimum:1,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,units:\\\"pixels\\\"},\\\"heatmap-weight\\\":{type:\\\"number\\\",default:1,minimum:0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!1},\\\"heatmap-intensity\\\":{type:\\\"number\\\",default:1,minimum:0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!1,transition:!0},\\\"heatmap-color\\\":{type:\\\"color\\\",default:[\\\"interpolate\\\",[\\\"linear\\\"],[\\\"heatmap-density\\\"],0,\\\"rgba(0, 0, 255, 0)\\\",.1,\\\"royalblue\\\",.3,\\\"cyan\\\",.5,\\\"lime\\\",.7,\\\"yellow\\\",1,\\\"red\\\"],function:\\\"interpolated\\\",\\\"zoom-function\\\":!1,\\\"property-function\\\":!1,transition:!1},\\\"heatmap-opacity\\\":{type:\\\"number\\\",default:1,minimum:0,maximum:1,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!1,transition:!0}},paint_symbol:{\\\"icon-opacity\\\":{type:\\\"number\\\",default:1,minimum:0,maximum:1,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,requires:[\\\"icon-image\\\"]},\\\"icon-color\\\":{type:\\\"color\\\",default:\\\"#000000\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,requires:[\\\"icon-image\\\"]},\\\"icon-halo-color\\\":{type:\\\"color\\\",default:\\\"rgba(0, 0, 0, 0)\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,requires:[\\\"icon-image\\\"]},\\\"icon-halo-width\\\":{type:\\\"number\\\",default:0,minimum:0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,units:\\\"pixels\\\",requires:[\\\"icon-image\\\"]},\\\"icon-halo-blur\\\":{type:\\\"number\\\",default:0,minimum:0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,units:\\\"pixels\\\",requires:[\\\"icon-image\\\"]},\\\"icon-translate\\\":{type:\\\"array\\\",value:\\\"number\\\",length:2,default:[0,0],function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!0,units:\\\"pixels\\\",requires:[\\\"icon-image\\\"]},\\\"icon-translate-anchor\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,values:{map:{},viewport:{}},default:\\\"map\\\",requires:[\\\"icon-image\\\",\\\"icon-translate\\\"]},\\\"text-opacity\\\":{type:\\\"number\\\",default:1,minimum:0,maximum:1,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,requires:[\\\"text-field\\\"]},\\\"text-color\\\":{type:\\\"color\\\",default:\\\"#000000\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,requires:[\\\"text-field\\\"]},\\\"text-halo-color\\\":{type:\\\"color\\\",default:\\\"rgba(0, 0, 0, 0)\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,requires:[\\\"text-field\\\"]},\\\"text-halo-width\\\":{type:\\\"number\\\",default:0,minimum:0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,units:\\\"pixels\\\",requires:[\\\"text-field\\\"]},\\\"text-halo-blur\\\":{type:\\\"number\\\",default:0,minimum:0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,units:\\\"pixels\\\",requires:[\\\"text-field\\\"]},\\\"text-translate\\\":{type:\\\"array\\\",value:\\\"number\\\",length:2,default:[0,0],function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!0,units:\\\"pixels\\\",requires:[\\\"text-field\\\"]},\\\"text-translate-anchor\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,values:{map:{},viewport:{}},default:\\\"map\\\",requires:[\\\"text-field\\\",\\\"text-translate\\\"]}},paint_raster:{\\\"raster-opacity\\\":{type:\\\"number\\\",default:1,minimum:0,maximum:1,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!0},\\\"raster-hue-rotate\\\":{type:\\\"number\\\",default:0,period:360,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!0,units:\\\"degrees\\\"},\\\"raster-brightness-min\\\":{type:\\\"number\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,default:0,minimum:0,maximum:1,transition:!0},\\\"raster-brightness-max\\\":{type:\\\"number\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,default:1,minimum:0,maximum:1,transition:!0},\\\"raster-saturation\\\":{type:\\\"number\\\",default:0,minimum:-1,maximum:1,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!0},\\\"raster-contrast\\\":{type:\\\"number\\\",default:0,minimum:-1,maximum:1,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!0},\\\"raster-fade-duration\\\":{type:\\\"number\\\",default:300,minimum:0,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!1,units:\\\"milliseconds\\\"}},paint_hillshade:{\\\"hillshade-illumination-direction\\\":{type:\\\"number\\\",default:335,minimum:0,maximum:359,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!1},\\\"hillshade-illumination-anchor\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,values:{map:{},viewport:{}},default:\\\"viewport\\\"},\\\"hillshade-exaggeration\\\":{type:\\\"number\\\",default:.5,minimum:0,maximum:1,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!0},\\\"hillshade-shadow-color\\\":{type:\\\"color\\\",default:\\\"#000000\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!0},\\\"hillshade-highlight-color\\\":{type:\\\"color\\\",default:\\\"#FFFFFF\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!0},\\\"hillshade-accent-color\\\":{type:\\\"color\\\",default:\\\"#000000\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!0}},paint_background:{\\\"background-color\\\":{type:\\\"color\\\",default:\\\"#000000\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!0,requires:[{\\\"!\\\":\\\"background-pattern\\\"}]},\\\"background-pattern\\\":{type:\\\"string\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,transition:!0},\\\"background-opacity\\\":{type:\\\"number\\\",default:1,minimum:0,maximum:1,function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!0}},transition:{duration:{type:\\\"number\\\",default:300,minimum:0,units:\\\"milliseconds\\\"},delay:{type:\\\"number\\\",default:0,minimum:0,units:\\\"milliseconds\\\"}},\\\"layout_fill-extrusion\\\":{visibility:{type:\\\"enum\\\",values:{visible:{},none:{}},default:\\\"visible\\\"}},function:{expression:{type:\\\"expression\\\"},stops:{type:\\\"array\\\",value:\\\"function_stop\\\"},base:{type:\\\"number\\\",default:1,minimum:0},property:{type:\\\"string\\\",default:\\\"$zoom\\\"},type:{type:\\\"enum\\\",values:{identity:{},exponential:{},interval:{},categorical:{}},default:\\\"exponential\\\"},colorSpace:{type:\\\"enum\\\",values:{rgb:{},lab:{},hcl:{}},default:\\\"rgb\\\"},default:{type:\\\"*\\\",required:!1}},\\\"paint_fill-extrusion\\\":{\\\"fill-extrusion-opacity\\\":{type:\\\"number\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!1,default:1,minimum:0,maximum:1,transition:!0},\\\"fill-extrusion-color\\\":{type:\\\"color\\\",default:\\\"#000000\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,transition:!0,requires:[{\\\"!\\\":\\\"fill-extrusion-pattern\\\"}]},\\\"fill-extrusion-translate\\\":{type:\\\"array\\\",value:\\\"number\\\",length:2,default:[0,0],function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,transition:!0,units:\\\"pixels\\\"},\\\"fill-extrusion-translate-anchor\\\":{type:\\\"enum\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,values:{map:{},viewport:{}},default:\\\"map\\\",requires:[\\\"fill-extrusion-translate\\\"]},\\\"fill-extrusion-pattern\\\":{type:\\\"string\\\",function:\\\"piecewise-constant\\\",\\\"zoom-function\\\":!0,transition:!0},\\\"fill-extrusion-height\\\":{type:\\\"number\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,default:0,minimum:0,units:\\\"meters\\\",transition:!0},\\\"fill-extrusion-base\\\":{type:\\\"number\\\",function:\\\"interpolated\\\",\\\"zoom-function\\\":!0,\\\"property-function\\\":!0,default:0,minimum:0,units:\\\"meters\\\",transition:!0,requires:[\\\"fill-extrusion-height\\\"]}}},D=function(t,e,r,n){this.message=(t?t+\\\": \\\":\\\"\\\")+r,n&&(this.identifier=n),null!=e&&e.__line__&&(this.line=e.__line__)};function P(t){var e=t.key,r=t.value;return r?[new D(e,r,\\\"constants have been deprecated as of v8\\\")]:[]}function R(t){for(var e=[],r=arguments.length-1;r-- >0;)e[r]=arguments[r+1];for(var n=0,i=e;n<i.length;n+=1){var a=i[n];for(var o in a)t[o]=a[o]}return t}function F(t){return t instanceof Number||t instanceof String||t instanceof Boolean?t.valueOf():t}function B(t){return Array.isArray(t)?t.map(B):F(t)}var N=function(t){function e(e,r){t.call(this,r),this.message=r,this.key=e}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e}(Error),j=function(t,e){void 0===e&&(e=[]),this.parent=t,this.bindings={};for(var r=0,n=e;r<n.length;r+=1){var i=n[r],a=i[0],o=i[1];this.bindings[a]=o}};j.prototype.concat=function(t){return new j(this,t)},j.prototype.get=function(t){if(this.bindings[t])return this.bindings[t];if(this.parent)return this.parent.get(t);throw new Error(t+\\\" not found in scope.\\\")},j.prototype.has=function(t){return!!this.bindings[t]||!!this.parent&&this.parent.has(t)};var V={kind:\\\"null\\\"},U={kind:\\\"number\\\"},H={kind:\\\"string\\\"},q={kind:\\\"boolean\\\"},G={kind:\\\"color\\\"},Y={kind:\\\"object\\\"},W={kind:\\\"value\\\"},X={kind:\\\"collator\\\"};function Z(t,e){return{kind:\\\"array\\\",itemType:t,N:e}}function $(t){if(\\\"array\\\"===t.kind){var e=$(t.itemType);return\\\"number\\\"==typeof t.N?\\\"array<\\\"+e+\\\", \\\"+t.N+\\\">\\\":\\\"value\\\"===t.itemType.kind?\\\"array\\\":\\\"array<\\\"+e+\\\">\\\"}return t.kind}var J=[V,U,H,q,G,Y,Z(W)];function K(t,e){if(\\\"error\\\"===e.kind)return null;if(\\\"array\\\"===t.kind){if(\\\"array\\\"===e.kind&&!K(t.itemType,e.itemType)&&(\\\"number\\\"!=typeof t.N||t.N===e.N))return null}else{if(t.kind===e.kind)return null;if(\\\"value\\\"===t.kind)for(var r=0,n=J;r<n.length;r+=1)if(!K(n[r],e))return null}return\\\"Expected \\\"+$(t)+\\\" but found \\\"+$(e)+\\\" instead.\\\"}var Q=i(function(t,e){var r={transparent:[0,0,0,0],aliceblue:[240,248,255,1],antiquewhite:[250,235,215,1],aqua:[0,255,255,1],aquamarine:[127,255,212,1],azure:[240,255,255,1],beige:[245,245,220,1],bisque:[255,228,196,1],black:[0,0,0,1],blanchedalmond:[255,235,205,1],blue:[0,0,255,1],blueviolet:[138,43,226,1],brown:[165,42,42,1],burlywood:[222,184,135,1],cadetblue:[95,158,160,1],chartreuse:[127,255,0,1],chocolate:[210,105,30,1],coral:[255,127,80,1],cornflowerblue:[100,149,237,1],cornsilk:[255,248,220,1],crimson:[220,20,60,1],cyan:[0,255,255,1],darkblue:[0,0,139,1],darkcyan:[0,139,139,1],darkgoldenrod:[184,134,11,1],darkgray:[169,169,169,1],darkgreen:[0,100,0,1],darkgrey:[169,169,169,1],darkkhaki:[189,183,107,1],darkmagenta:[139,0,139,1],darkolivegreen:[85,107,47,1],darkorange:[255,140,0,1],darkorchid:[153,50,204,1],darkred:[139,0,0,1],darksalmon:[233,150,122,1],darkseagreen:[143,188,143,1],darkslateblue:[72,61,139,1],darkslategray:[47,79,79,1],darkslategrey:[47,79,79,1],darkturquoise:[0,206,209,1],darkviolet:[148,0,211,1],deeppink:[255,20,147,1],deepskyblue:[0,191,255,1],dimgray:[105,105,105,1],dimgrey:[105,105,105,1],dodgerblue:[30,144,255,1],firebrick:[178,34,34,1],floralwhite:[255,250,240,1],forestgreen:[34,139,34,1],fuchsia:[255,0,255,1],gainsboro:[220,220,220,1],ghostwhite:[248,248,255,1],gold:[255,215,0,1],goldenrod:[218,165,32,1],gray:[128,128,128,1],green:[0,128,0,1],greenyellow:[173,255,47,1],grey:[128,128,128,1],honeydew:[240,255,240,1],hotpink:[255,105,180,1],indianred:[205,92,92,1],indigo:[75,0,130,1],ivory:[255,255,240,1],khaki:[240,230,140,1],lavender:[230,230,250,1],lavenderblush:[255,240,245,1],lawngreen:[124,252,0,1],lemonchiffon:[255,250,205,1],lightblue:[173,216,230,1],lightcoral:[240,128,128,1],lightcyan:[224,255,255,1],lightgoldenrodyellow:[250,250,210,1],lightgray:[211,211,211,1],lightgreen:[144,238,144,1],lightgrey:[211,211,211,1],lightpink:[255,182,193,1],lightsalmon:[255,160,122,1],lightseagreen:[32,178,170,1],lightskyblue:[135,206,250,1],lightslategray:[119,136,153,1],lightslategrey:[119,136,153,1],lightsteelblue:[176,196,222,1],lightyellow:[255,255,224,1],lime:[0,255,0,1],limegreen:[50,205,50,1],linen:[250,240,230,1],magenta:[255,0,255,1],maroon:[128,0,0,1],mediumaquamarine:[102,205,170,1],mediumblue:[0,0,205,1],mediumorchid:[186,85,211,1],mediumpurple:[147,112,219,1],mediumseagreen:[60,179,113,1],mediumslateblue:[123,104,238,1],mediumspringgreen:[0,250,154,1],mediumturquoise:[72,209,204,1],mediumvioletred:[199,21,133,1],midnightblue:[25,25,112,1],mintcream:[245,255,250,1],mistyrose:[255,228,225,1],moccasin:[255,228,181,1],navajowhite:[255,222,173,1],navy:[0,0,128,1],oldlace:[253,245,230,1],olive:[128,128,0,1],olivedrab:[107,142,35,1],orange:[255,165,0,1],orangered:[255,69,0,1],orchid:[218,112,214,1],palegoldenrod:[238,232,170,1],palegreen:[152,251,152,1],paleturquoise:[175,238,238,1],palevioletred:[219,112,147,1],papayawhip:[255,239,213,1],peachpuff:[255,218,185,1],peru:[205,133,63,1],pink:[255,192,203,1],plum:[221,160,221,1],powderblue:[176,224,230,1],purple:[128,0,128,1],rebeccapurple:[102,51,153,1],red:[255,0,0,1],rosybrown:[188,143,143,1],royalblue:[65,105,225,1],saddlebrown:[139,69,19,1],salmon:[250,128,114,1],sandybrown:[244,164,96,1],seagreen:[46,139,87,1],seashell:[255,245,238,1],sienna:[160,82,45,1],silver:[192,192,192,1],skyblue:[135,206,235,1],slateblue:[106,90,205,1],slategray:[112,128,144,1],slategrey:[112,128,144,1],snow:[255,250,250,1],springgreen:[0,255,127,1],steelblue:[70,130,180,1],tan:[210,180,140,1],teal:[0,128,128,1],thistle:[216,191,216,1],tomato:[255,99,71,1],turquoise:[64,224,208,1],violet:[238,130,238,1],wheat:[245,222,179,1],white:[255,255,255,1],whitesmoke:[245,245,245,1],yellow:[255,255,0,1],yellowgreen:[154,205,50,1]};function n(t){return(t=Math.round(t))<0?0:t>255?255:t}function i(t){return t<0?0:t>1?1:t}function a(t){return\\\"%\\\"===t[t.length-1]?n(parseFloat(t)/100*255):n(parseInt(t))}function o(t){return\\\"%\\\"===t[t.length-1]?i(parseFloat(t)/100):i(parseFloat(t))}function s(t,e,r){return r<0?r+=1:r>1&&(r-=1),6*r<1?t+(e-t)*r*6:2*r<1?e:3*r<2?t+(e-t)*(2/3-r)*6:t}try{e.parseCSSColor=function(t){var e,i=t.replace(/ /g,\\\"\\\").toLowerCase();if(i in r)return r[i].slice();if(\\\"#\\\"===i[0])return 4===i.length?(e=parseInt(i.substr(1),16))>=0&&e<=4095?[(3840&e)>>4|(3840&e)>>8,240&e|(240&e)>>4,15&e|(15&e)<<4,1]:null:7===i.length&&(e=parseInt(i.substr(1),16))>=0&&e<=16777215?[(16711680&e)>>16,(65280&e)>>8,255&e,1]:null;var l=i.indexOf(\\\"(\\\"),c=i.indexOf(\\\")\\\");if(-1!==l&&c+1===i.length){var u=i.substr(0,l),f=i.substr(l+1,c-(l+1)).split(\\\",\\\"),h=1;switch(u){case\\\"rgba\\\":if(4!==f.length)return null;h=o(f.pop());case\\\"rgb\\\":return 3!==f.length?null:[a(f[0]),a(f[1]),a(f[2]),h];case\\\"hsla\\\":if(4!==f.length)return null;h=o(f.pop());case\\\"hsl\\\":if(3!==f.length)return null;var p=(parseFloat(f[0])%360+360)%360/360,d=o(f[1]),g=o(f[2]),v=g<=.5?g*(d+1):g+d-g*d,m=2*g-v;return[n(255*s(m,v,p+1/3)),n(255*s(m,v,p)),n(255*s(m,v,p-1/3)),h];default:return null}}return null}}catch(t){}}).parseCSSColor,tt=function(t,e,r,n){void 0===n&&(n=1),this.r=t,this.g=e,this.b=r,this.a=n};tt.parse=function(t){if(t){if(t instanceof tt)return t;if(\\\"string\\\"==typeof t){var e=Q(t);if(e)return new tt(e[0]/255*e[3],e[1]/255*e[3],e[2]/255*e[3],e[3])}}},tt.prototype.toString=function(){var t=this.toArray(),e=t[0],r=t[1],n=t[2],i=t[3];return\\\"rgba(\\\"+Math.round(e)+\\\",\\\"+Math.round(r)+\\\",\\\"+Math.round(n)+\\\",\\\"+i+\\\")\\\"},tt.prototype.toArray=function(){var t=this.r,e=this.g,r=this.b,n=this.a;return 0===n?[0,0,0,0]:[255*t/n,255*e/n,255*r/n,n]},tt.black=new tt(0,0,0,1),tt.white=new tt(1,1,1,1),tt.transparent=new tt(0,0,0,0);var et=function(t,e,r){this.sensitivity=t?e?\\\"variant\\\":\\\"case\\\":e?\\\"accent\\\":\\\"base\\\",this.locale=r,this.collator=new Intl.Collator(this.locale?this.locale:[],{sensitivity:this.sensitivity,usage:\\\"search\\\"})};et.prototype.compare=function(t,e){return this.collator.compare(t,e)},et.prototype.resolvedLocale=function(){return new Intl.Collator(this.locale?this.locale:[]).resolvedOptions().locale};var rt=function(t,e,r){this.type=X,this.locale=r,this.caseSensitive=t,this.diacriticSensitive=e};function nt(t,e,r,n){return\\\"number\\\"==typeof t&&t>=0&&t<=255&&\\\"number\\\"==typeof e&&e>=0&&e<=255&&\\\"number\\\"==typeof r&&r>=0&&r<=255?void 0===n||\\\"number\\\"==typeof n&&n>=0&&n<=1?null:\\\"Invalid rgba value [\\\"+[t,e,r,n].join(\\\", \\\")+\\\"]: 'a' must be between 0 and 1.\\\":\\\"Invalid rgba value [\\\"+(\\\"number\\\"==typeof n?[t,e,r,n]:[t,e,r]).join(\\\", \\\")+\\\"]: 'r', 'g', and 'b' must be between 0 and 255.\\\"}function it(t){if(null===t)return V;if(\\\"string\\\"==typeof t)return H;if(\\\"boolean\\\"==typeof t)return q;if(\\\"number\\\"==typeof t)return U;if(t instanceof tt)return G;if(t instanceof et)return X;if(Array.isArray(t)){for(var e,r=t.length,n=0,i=t;n<i.length;n+=1){var a=it(i[n]);if(e){if(e===a)continue;e=W;break}e=a}return Z(e||W,r)}return Y}rt.parse=function(t,e){if(2!==t.length)return e.error(\\\"Expected one argument.\\\");var r=t[1];if(\\\"object\\\"!=typeof r||Array.isArray(r))return e.error(\\\"Collator options argument must be an object.\\\");var n=e.parse(void 0!==r[\\\"case-sensitive\\\"]&&r[\\\"case-sensitive\\\"],1,q);if(!n)return null;var i=e.parse(void 0!==r[\\\"diacritic-sensitive\\\"]&&r[\\\"diacritic-sensitive\\\"],1,q);if(!i)return null;var a=null;return r.locale&&!(a=e.parse(r.locale,1,H))?null:new rt(n,i,a)},rt.prototype.evaluate=function(t){return new et(this.caseSensitive.evaluate(t),this.diacriticSensitive.evaluate(t),this.locale?this.locale.evaluate(t):null)},rt.prototype.eachChild=function(t){t(this.caseSensitive),t(this.diacriticSensitive),this.locale&&t(this.locale)},rt.prototype.possibleOutputs=function(){return[void 0]},rt.prototype.serialize=function(){var t={};return t[\\\"case-sensitive\\\"]=this.caseSensitive.serialize(),t[\\\"diacritic-sensitive\\\"]=this.diacriticSensitive.serialize(),this.locale&&(t.locale=this.locale.serialize()),[\\\"collator\\\",t]};var at=function(t,e){this.type=t,this.value=e};at.parse=function(t,e){if(2!==t.length)return e.error(\\\"'literal' expression requires exactly one argument, but found \\\"+(t.length-1)+\\\" instead.\\\");if(!function t(e){if(null===e)return!0;if(\\\"string\\\"==typeof e)return!0;if(\\\"boolean\\\"==typeof e)return!0;if(\\\"number\\\"==typeof e)return!0;if(e instanceof tt)return!0;if(e instanceof et)return!0;if(Array.isArray(e)){for(var r=0,n=e;r<n.length;r+=1)if(!t(n[r]))return!1;return!0}if(\\\"object\\\"==typeof e){for(var i in e)if(!t(e[i]))return!1;return!0}return!1}(t[1]))return e.error(\\\"invalid value\\\");var r=t[1],n=it(r),i=e.expectedType;return\\\"array\\\"!==n.kind||0!==n.N||!i||\\\"array\\\"!==i.kind||\\\"number\\\"==typeof i.N&&0!==i.N||(n=i),new at(n,r)},at.prototype.evaluate=function(){return this.value},at.prototype.eachChild=function(){},at.prototype.possibleOutputs=function(){return[this.value]},at.prototype.serialize=function(){return\\\"array\\\"===this.type.kind||\\\"object\\\"===this.type.kind?[\\\"literal\\\",this.value]:this.value instanceof tt?[\\\"rgba\\\"].concat(this.value.toArray()):this.value};var ot=function(t){this.name=\\\"ExpressionEvaluationError\\\",this.message=t};ot.prototype.toJSON=function(){return this.message};var st={string:H,number:U,boolean:q,object:Y},lt=function(t,e){this.type=t,this.args=e};lt.parse=function(t,e){if(t.length<2)return e.error(\\\"Expected at least one argument.\\\");for(var r=t[0],n=st[r],i=[],a=1;a<t.length;a++){var o=e.parse(t[a],a,W);if(!o)return null;i.push(o)}return new lt(n,i)},lt.prototype.evaluate=function(t){for(var e=0;e<this.args.length;e++){var r=this.args[e].evaluate(t);if(!K(this.type,it(r)))return r;if(e===this.args.length-1)throw new ot(\\\"Expected value to be of type \\\"+$(this.type)+\\\", but found \\\"+$(it(r))+\\\" instead.\\\")}return null},lt.prototype.eachChild=function(t){this.args.forEach(t)},lt.prototype.possibleOutputs=function(){return(t=[]).concat.apply(t,this.args.map(function(t){return t.possibleOutputs()}));var t},lt.prototype.serialize=function(){return[this.type.kind].concat(this.args.map(function(t){return t.serialize()}))};var ct={string:H,number:U,boolean:q},ut=function(t,e){this.type=t,this.input=e};ut.parse=function(t,e){if(t.length<2||t.length>4)return e.error(\\\"Expected 1, 2, or 3 arguments, but found \\\"+(t.length-1)+\\\" instead.\\\");var r,n;if(t.length>2){var i=t[1];if(\\\"string\\\"!=typeof i||!(i in ct))return e.error('The item type argument of \\\"array\\\" must be one of string, number, boolean',1);r=ct[i]}else r=W;if(t.length>3){if(\\\"number\\\"!=typeof t[2]||t[2]<0||t[2]!==Math.floor(t[2]))return e.error('The length argument to \\\"array\\\" must be a positive integer literal',2);n=t[2]}var a=Z(r,n),o=e.parse(t[t.length-1],t.length-1,W);return o?new ut(a,o):null},ut.prototype.evaluate=function(t){var e=this.input.evaluate(t);if(K(this.type,it(e)))throw new ot(\\\"Expected value to be of type \\\"+$(this.type)+\\\", but found \\\"+$(it(e))+\\\" instead.\\\");return e},ut.prototype.eachChild=function(t){t(this.input)},ut.prototype.possibleOutputs=function(){return this.input.possibleOutputs()},ut.prototype.serialize=function(){var t=[\\\"array\\\"],e=this.type.itemType;if(\\\"string\\\"===e.kind||\\\"number\\\"===e.kind||\\\"boolean\\\"===e.kind){t.push(e.kind);var r=this.type.N;\\\"number\\\"==typeof r&&t.push(r)}return t.push(this.input.serialize()),t};var ft={\\\"to-number\\\":U,\\\"to-color\\\":G},ht=function(t,e){this.type=t,this.args=e};ht.parse=function(t,e){if(t.length<2)return e.error(\\\"Expected at least one argument.\\\");for(var r=t[0],n=ft[r],i=[],a=1;a<t.length;a++){var o=e.parse(t[a],a,W);if(!o)return null;i.push(o)}return new ht(n,i)},ht.prototype.evaluate=function(t){if(\\\"color\\\"===this.type.kind){for(var e,r,n=0,i=this.args;n<i.length;n+=1)if(r=null,\\\"string\\\"==typeof(e=i[n].evaluate(t))){var a=t.parseColor(e);if(a)return a}else if(Array.isArray(e)&&!(r=e.length<3||e.length>4?\\\"Invalid rbga value \\\"+JSON.stringify(e)+\\\": expected an array containing either three or four numeric values.\\\":nt(e[0],e[1],e[2],e[3])))return new tt(e[0]/255,e[1]/255,e[2]/255,e[3]);throw new ot(r||\\\"Could not parse color from value '\\\"+(\\\"string\\\"==typeof e?e:JSON.stringify(e))+\\\"'\\\")}for(var o=null,s=0,l=this.args;s<l.length;s+=1)if(null!==(o=l[s].evaluate(t))){var c=Number(o);if(!isNaN(c))return c}throw new ot(\\\"Could not convert \\\"+JSON.stringify(o)+\\\" to number.\\\")},ht.prototype.eachChild=function(t){this.args.forEach(t)},ht.prototype.possibleOutputs=function(){return(t=[]).concat.apply(t,this.args.map(function(t){return t.possibleOutputs()}));var t},ht.prototype.serialize=function(){var t=[\\\"to-\\\"+this.type.kind];return this.eachChild(function(e){t.push(e.serialize())}),t};var pt=[\\\"Unknown\\\",\\\"Point\\\",\\\"LineString\\\",\\\"Polygon\\\"],dt=function(){this._parseColorCache={}};dt.prototype.id=function(){return this.feature&&\\\"id\\\"in this.feature?this.feature.id:null},dt.prototype.geometryType=function(){return this.feature?\\\"number\\\"==typeof this.feature.type?pt[this.feature.type]:this.feature.type:null},dt.prototype.properties=function(){return this.feature&&this.feature.properties||{}},dt.prototype.parseColor=function(t){var e=this._parseColorCache[t];return e||(e=this._parseColorCache[t]=tt.parse(t)),e};var gt=function(t,e,r,n){this.name=t,this.type=e,this._evaluate=r,this.args=n};function vt(t){if(t instanceof gt){if(\\\"get\\\"===t.name&&1===t.args.length)return!1;if(\\\"has\\\"===t.name&&1===t.args.length)return!1;if(\\\"properties\\\"===t.name||\\\"geometry-type\\\"===t.name||\\\"id\\\"===t.name)return!1;if(/^filter-/.test(t.name))return!1}var e=!0;return t.eachChild(function(t){e&&!vt(t)&&(e=!1)}),e}function mt(t,e){if(t instanceof gt&&e.indexOf(t.name)>=0)return!1;var r=!0;return t.eachChild(function(t){r&&!mt(t,e)&&(r=!1)}),r}gt.prototype.evaluate=function(t){return this._evaluate(t,this.args)},gt.prototype.eachChild=function(t){this.args.forEach(t)},gt.prototype.possibleOutputs=function(){return[void 0]},gt.prototype.serialize=function(){return[this.name].concat(this.args.map(function(t){return t.serialize()}))},gt.parse=function(t,e){var r=t[0],n=gt.definitions[r];if(!n)return e.error('Unknown expression \\\"'+r+'\\\". If you wanted a literal array, use [\\\"literal\\\", [...]].',0);for(var i=Array.isArray(n)?n[0]:n.type,a=Array.isArray(n)?[[n[1],n[2]]]:n.overloads,o=a.filter(function(e){var r=e[0];return!Array.isArray(r)||r.length===t.length-1}),s=[],l=1;l<t.length;l++){var c=t[l],u=void 0;if(1===o.length){var f=o[0][0];u=Array.isArray(f)?f[l-1]:f.type}var h=e.parse(c,1+s.length,u);if(!h)return null;s.push(h)}for(var p=null,d=0,g=o;d<g.length;d+=1){var v=g[d],m=v[0],y=v[1];if(p=new xt(e.registry,e.path,null,e.scope),Array.isArray(m)&&m.length!==s.length)p.error(\\\"Expected \\\"+m.length+\\\" arguments, but found \\\"+s.length+\\\" instead.\\\");else{for(var x=0;x<s.length;x++){var b=Array.isArray(m)?m[x]:m.type,_=s[x];p.concat(x+1).checkSubtype(b,_.type)}if(0===p.errors.length)return new gt(r,i,y,s)}}if(1===o.length)e.errors.push.apply(e.errors,p.errors);else{var w=(o.length?o:a).map(function(t){var e;return e=t[0],Array.isArray(e)?\\\"(\\\"+e.map($).join(\\\", \\\")+\\\")\\\":\\\"(\\\"+$(e.type)+\\\"...)\\\"}).join(\\\" | \\\"),k=s.map(function(t){return $(t.type)}).join(\\\", \\\");e.error(\\\"Expected arguments of type \\\"+w+\\\", but found (\\\"+k+\\\") instead.\\\")}return null},gt.register=function(t,e){for(var r in gt.definitions=e,e)t[r]=gt};var yt=function(t,e){this.type=e.type,this.name=t,this.boundExpression=e};yt.parse=function(t,e){if(2!==t.length||\\\"string\\\"!=typeof t[1])return e.error(\\\"'var' expression requires exactly one string literal argument.\\\");var r=t[1];return e.scope.has(r)?new yt(r,e.scope.get(r)):e.error('Unknown variable \\\"'+r+'\\\". Make sure \\\"'+r+'\\\" has been bound in an enclosing \\\"let\\\" expression before using it.',1)},yt.prototype.evaluate=function(t){return this.boundExpression.evaluate(t)},yt.prototype.eachChild=function(){},yt.prototype.possibleOutputs=function(){return[void 0]},yt.prototype.serialize=function(){return[\\\"var\\\",this.name]};var xt=function(t,e,r,n,i){void 0===e&&(e=[]),void 0===n&&(n=new j),void 0===i&&(i=[]),this.registry=t,this.path=e,this.key=e.map(function(t){return\\\"[\\\"+t+\\\"]\\\"}).join(\\\"\\\"),this.scope=n,this.errors=i,this.expectedType=r};function bt(t,e){for(var r,n,i=0,a=t.length-1,o=0;i<=a;){if(r=t[o=Math.floor((i+a)/2)],n=t[o+1],e===r||e>r&&e<n)return o;if(r<e)i=o+1;else{if(!(r>e))throw new ot(\\\"Input is not a number.\\\");a=o-1}}return Math.max(o-1,0)}xt.prototype.parse=function(t,e,r,n,i){return void 0===i&&(i={}),e?this.concat(e,r,n)._parse(t,i):this._parse(t,i)},xt.prototype._parse=function(t,e){if(null!==t&&\\\"string\\\"!=typeof t&&\\\"boolean\\\"!=typeof t&&\\\"number\\\"!=typeof t||(t=[\\\"literal\\\",t]),Array.isArray(t)){if(0===t.length)return this.error('Expected an array with at least one element. If you wanted a literal array, use [\\\"literal\\\", []].');var r=t[0];if(\\\"string\\\"!=typeof r)return this.error(\\\"Expression name must be a string, but found \\\"+typeof r+' instead. If you wanted a literal array, use [\\\"literal\\\", [...]].',0),null;var n=this.registry[r];if(n){var i=n.parse(t,this);if(!i)return null;if(this.expectedType){var a=this.expectedType,o=i.type;if(\\\"string\\\"!==a.kind&&\\\"number\\\"!==a.kind&&\\\"boolean\\\"!==a.kind&&\\\"object\\\"!==a.kind||\\\"value\\\"!==o.kind)if(\\\"array\\\"===a.kind&&\\\"value\\\"===o.kind)e.omitTypeAnnotations||(i=new ut(a,i));else if(\\\"color\\\"!==a.kind||\\\"value\\\"!==o.kind&&\\\"string\\\"!==o.kind){if(this.checkSubtype(this.expectedType,i.type))return null}else e.omitTypeAnnotations||(i=new ht(a,[i]));else e.omitTypeAnnotations||(i=new lt(a,[i]))}if(!(i instanceof at)&&function t(e){if(e instanceof yt)return t(e.boundExpression);if(e instanceof gt&&\\\"error\\\"===e.name)return!1;if(e instanceof rt)return!1;var r=e instanceof ht||e instanceof lt||e instanceof ut,n=!0;return e.eachChild(function(e){n=r?n&&t(e):n&&e instanceof at}),!!n&&(vt(e)&&mt(e,[\\\"zoom\\\",\\\"heatmap-density\\\",\\\"line-progress\\\",\\\"is-supported-script\\\"]))}(i)){var s=new dt;try{i=new at(i.type,i.evaluate(s))}catch(t){return this.error(t.message),null}}return i}return this.error('Unknown expression \\\"'+r+'\\\". If you wanted a literal array, use [\\\"literal\\\", [...]].',0)}return void 0===t?this.error(\\\"'undefined' value invalid. Use null instead.\\\"):\\\"object\\\"==typeof t?this.error('Bare objects invalid. Use [\\\"literal\\\", {...}] instead.'):this.error(\\\"Expected an array, but found \\\"+typeof t+\\\" instead.\\\")},xt.prototype.concat=function(t,e,r){var n=\\\"number\\\"==typeof t?this.path.concat(t):this.path,i=r?this.scope.concat(r):this.scope;return new xt(this.registry,n,e||null,i,this.errors)},xt.prototype.error=function(t){for(var e=[],r=arguments.length-1;r-- >0;)e[r]=arguments[r+1];var n=\\\"\\\"+this.key+e.map(function(t){return\\\"[\\\"+t+\\\"]\\\"}).join(\\\"\\\");this.errors.push(new N(n,t))},xt.prototype.checkSubtype=function(t,e){var r=K(t,e);return r&&this.error(r),r};var _t=function(t,e,r){this.type=t,this.input=e,this.labels=[],this.outputs=[];for(var n=0,i=r;n<i.length;n+=1){var a=i[n],o=a[0],s=a[1];this.labels.push(o),this.outputs.push(s)}};function wt(t,e,r){return t*(1-r)+e*r}_t.parse=function(t,e){var r=t[1],n=t.slice(2);if(t.length-1<4)return e.error(\\\"Expected at least 4 arguments, but found only \\\"+(t.length-1)+\\\".\\\");if((t.length-1)%2!=0)return e.error(\\\"Expected an even number of arguments.\\\");if(!(r=e.parse(r,1,U)))return null;var i=[],a=null;e.expectedType&&\\\"value\\\"!==e.expectedType.kind&&(a=e.expectedType),n.unshift(-1/0);for(var o=0;o<n.length;o+=2){var s=n[o],l=n[o+1],c=o+1,u=o+2;if(\\\"number\\\"!=typeof s)return e.error('Input/output pairs for \\\"step\\\" expressions must be defined using literal numeric values (not computed expressions) for the input values.',c);if(i.length&&i[i.length-1][0]>=s)return e.error('Input/output pairs for \\\"step\\\" expressions must be arranged with input values in strictly ascending order.',c);var f=e.parse(l,u,a);if(!f)return null;a=a||f.type,i.push([s,f])}return new _t(a,r,i)},_t.prototype.evaluate=function(t){var e=this.labels,r=this.outputs;if(1===e.length)return r[0].evaluate(t);var n=this.input.evaluate(t);if(n<=e[0])return r[0].evaluate(t);var i=e.length;return n>=e[i-1]?r[i-1].evaluate(t):r[bt(e,n)].evaluate(t)},_t.prototype.eachChild=function(t){t(this.input);for(var e=0,r=this.outputs;e<r.length;e+=1)t(r[e])},_t.prototype.possibleOutputs=function(){return(t=[]).concat.apply(t,this.outputs.map(function(t){return t.possibleOutputs()}));var t},_t.prototype.serialize=function(){for(var t=[\\\"step\\\",this.input.serialize()],e=0;e<this.labels.length;e++)e>0&&t.push(this.labels[e]),t.push(this.outputs[e].serialize());return t};var kt=Object.freeze({number:wt,color:function(t,e,r){return new tt(wt(t.r,e.r,r),wt(t.g,e.g,r),wt(t.b,e.b,r),wt(t.a,e.a,r))},array:function(t,e,r){return t.map(function(t,n){return wt(t,e[n],r)})}}),Tt=function(t,e,r,n){this.type=t,this.interpolation=e,this.input=r,this.labels=[],this.outputs=[];for(var i=0,a=n;i<a.length;i+=1){var o=a[i],s=o[0],l=o[1];this.labels.push(s),this.outputs.push(l)}};function At(t,e,r,n){var i=n-r,a=t-r;return 0===i?0:1===e?a/i:(Math.pow(e,a)-1)/(Math.pow(e,i)-1)}Tt.interpolationFactor=function(t,e,r,n){var i=0;if(\\\"exponential\\\"===t.name)i=At(e,t.base,r,n);else if(\\\"linear\\\"===t.name)i=At(e,1,r,n);else if(\\\"cubic-bezier\\\"===t.name){var o=t.controlPoints;i=new a(o[0],o[1],o[2],o[3]).solve(At(e,1,r,n))}return i},Tt.parse=function(t,e){var r=t[1],n=t[2],i=t.slice(3);if(!Array.isArray(r)||0===r.length)return e.error(\\\"Expected an interpolation type expression.\\\",1);if(\\\"linear\\\"===r[0])r={name:\\\"linear\\\"};else if(\\\"exponential\\\"===r[0]){var a=r[1];if(\\\"number\\\"!=typeof a)return e.error(\\\"Exponential interpolation requires a numeric base.\\\",1,1);r={name:\\\"exponential\\\",base:a}}else{if(\\\"cubic-bezier\\\"!==r[0])return e.error(\\\"Unknown interpolation type \\\"+String(r[0]),1,0);var o=r.slice(1);if(4!==o.length||o.some(function(t){return\\\"number\\\"!=typeof t||t<0||t>1}))return e.error(\\\"Cubic bezier interpolation requires four numeric arguments with values between 0 and 1.\\\",1);r={name:\\\"cubic-bezier\\\",controlPoints:o}}if(t.length-1<4)return e.error(\\\"Expected at least 4 arguments, but found only \\\"+(t.length-1)+\\\".\\\");if((t.length-1)%2!=0)return e.error(\\\"Expected an even number of arguments.\\\");if(!(n=e.parse(n,2,U)))return null;var s=[],l=null;e.expectedType&&\\\"value\\\"!==e.expectedType.kind&&(l=e.expectedType);for(var c=0;c<i.length;c+=2){var u=i[c],f=i[c+1],h=c+3,p=c+4;if(\\\"number\\\"!=typeof u)return e.error('Input/output pairs for \\\"interpolate\\\" expressions must be defined using literal numeric values (not computed expressions) for the input values.',h);if(s.length&&s[s.length-1][0]>=u)return e.error('Input/output pairs for \\\"interpolate\\\" expressions must be arranged with input values in strictly ascending order.',h);var d=e.parse(f,p,l);if(!d)return null;l=l||d.type,s.push([u,d])}return\\\"number\\\"===l.kind||\\\"color\\\"===l.kind||\\\"array\\\"===l.kind&&\\\"number\\\"===l.itemType.kind&&\\\"number\\\"==typeof l.N?new Tt(l,r,n,s):e.error(\\\"Type \\\"+$(l)+\\\" is not interpolatable.\\\")},Tt.prototype.evaluate=function(t){var e=this.labels,r=this.outputs;if(1===e.length)return r[0].evaluate(t);var n=this.input.evaluate(t);if(n<=e[0])return r[0].evaluate(t);var i=e.length;if(n>=e[i-1])return r[i-1].evaluate(t);var a=bt(e,n),o=e[a],s=e[a+1],l=Tt.interpolationFactor(this.interpolation,n,o,s),c=r[a].evaluate(t),u=r[a+1].evaluate(t);return kt[this.type.kind.toLowerCase()](c,u,l)},Tt.prototype.eachChild=function(t){t(this.input);for(var e=0,r=this.outputs;e<r.length;e+=1)t(r[e])},Tt.prototype.possibleOutputs=function(){return(t=[]).concat.apply(t,this.outputs.map(function(t){return t.possibleOutputs()}));var t},Tt.prototype.serialize=function(){for(var t=[\\\"interpolate\\\",\\\"linear\\\"===this.interpolation.name?[\\\"linear\\\"]:\\\"exponential\\\"===this.interpolation.name?1===this.interpolation.base?[\\\"linear\\\"]:[\\\"exponential\\\",this.interpolation.base]:[\\\"cubic-bezier\\\"].concat(this.interpolation.controlPoints),this.input.serialize()],e=0;e<this.labels.length;e++)t.push(this.labels[e],this.outputs[e].serialize());return t};var Mt=function(t,e){this.type=t,this.args=e};Mt.parse=function(t,e){if(t.length<2)return e.error(\\\"Expectected at least one argument.\\\");var r=null,n=e.expectedType;n&&\\\"value\\\"!==n.kind&&(r=n);for(var i=[],a=0,o=t.slice(1);a<o.length;a+=1){var s=o[a],l=e.parse(s,1+i.length,r,void 0,{omitTypeAnnotations:!0});if(!l)return null;r=r||l.type,i.push(l)}var c=n&&i.some(function(t){return K(n,t.type)});return new Mt(c?W:r,i)},Mt.prototype.evaluate=function(t){for(var e=null,r=0,n=this.args;r<n.length&&null===(e=n[r].evaluate(t));r+=1);return e},Mt.prototype.eachChild=function(t){this.args.forEach(t)},Mt.prototype.possibleOutputs=function(){return(t=[]).concat.apply(t,this.args.map(function(t){return t.possibleOutputs()}));var t},Mt.prototype.serialize=function(){var t=[\\\"coalesce\\\"];return this.eachChild(function(e){t.push(e.serialize())}),t};var St=function(t,e){this.type=e.type,this.bindings=[].concat(t),this.result=e};St.prototype.evaluate=function(t){return this.result.evaluate(t)},St.prototype.eachChild=function(t){for(var e=0,r=this.bindings;e<r.length;e+=1)t(r[e][1]);t(this.result)},St.parse=function(t,e){if(t.length<4)return e.error(\\\"Expected at least 3 arguments, but found \\\"+(t.length-1)+\\\" instead.\\\");for(var r=[],n=1;n<t.length-1;n+=2){var i=t[n];if(\\\"string\\\"!=typeof i)return e.error(\\\"Expected string, but found \\\"+typeof i+\\\" instead.\\\",n);if(/[^a-zA-Z0-9_]/.test(i))return e.error(\\\"Variable names must contain only alphanumeric characters or '_'.\\\",n);var a=e.parse(t[n+1],n+1);if(!a)return null;r.push([i,a])}var o=e.parse(t[t.length-1],t.length-1,void 0,r);return o?new St(r,o):null},St.prototype.possibleOutputs=function(){return this.result.possibleOutputs()},St.prototype.serialize=function(){for(var t=[\\\"let\\\"],e=0,r=this.bindings;e<r.length;e+=1){var n=r[e],i=n[0],a=n[1];t.push(i,a.serialize())}return t.push(this.result.serialize()),t};var Et=function(t,e,r){this.type=t,this.index=e,this.input=r};Et.parse=function(t,e){if(3!==t.length)return e.error(\\\"Expected 2 arguments, but found \\\"+(t.length-1)+\\\" instead.\\\");var r=e.parse(t[1],1,U),n=e.parse(t[2],2,Z(e.expectedType||W));if(!r||!n)return null;var i=n.type;return new Et(i.itemType,r,n)},Et.prototype.evaluate=function(t){var e=this.index.evaluate(t),r=this.input.evaluate(t);if(e<0)throw new ot(\\\"Array index out of bounds: \\\"+e+\\\" < 0.\\\");if(e>=r.length)throw new ot(\\\"Array index out of bounds: \\\"+e+\\\" > \\\"+(r.length-1)+\\\".\\\");if(e!==Math.floor(e))throw new ot(\\\"Array index must be an integer, but found \\\"+e+\\\" instead.\\\");return r[e]},Et.prototype.eachChild=function(t){t(this.index),t(this.input)},Et.prototype.possibleOutputs=function(){return[void 0]},Et.prototype.serialize=function(){return[\\\"at\\\",this.index.serialize(),this.input.serialize()]};var Ct=function(t,e,r,n,i,a){this.inputType=t,this.type=e,this.input=r,this.cases=n,this.outputs=i,this.otherwise=a};Ct.parse=function(t,e){if(t.length<5)return e.error(\\\"Expected at least 4 arguments, but found only \\\"+(t.length-1)+\\\".\\\");if(t.length%2!=1)return e.error(\\\"Expected an even number of arguments.\\\");var r,n;e.expectedType&&\\\"value\\\"!==e.expectedType.kind&&(n=e.expectedType);for(var i={},a=[],o=2;o<t.length-1;o+=2){var s=t[o],l=t[o+1];Array.isArray(s)||(s=[s]);var c=e.concat(o);if(0===s.length)return c.error(\\\"Expected at least one branch label.\\\");for(var u=0,f=s;u<f.length;u+=1){var h=f[u];if(\\\"number\\\"!=typeof h&&\\\"string\\\"!=typeof h)return c.error(\\\"Branch labels must be numbers or strings.\\\");if(\\\"number\\\"==typeof h&&Math.abs(h)>Number.MAX_SAFE_INTEGER)return c.error(\\\"Branch labels must be integers no larger than \\\"+Number.MAX_SAFE_INTEGER+\\\".\\\");if(\\\"number\\\"==typeof h&&Math.floor(h)!==h)return c.error(\\\"Numeric branch labels must be integer values.\\\");if(r){if(c.checkSubtype(r,it(h)))return null}else r=it(h);if(void 0!==i[String(h)])return c.error(\\\"Branch labels must be unique.\\\");i[String(h)]=a.length}var p=e.parse(l,o,n);if(!p)return null;n=n||p.type,a.push(p)}var d=e.parse(t[1],1,r);if(!d)return null;var g=e.parse(t[t.length-1],t.length-1,n);return g?new Ct(r,n,d,i,a,g):null},Ct.prototype.evaluate=function(t){var e=this.input.evaluate(t);return(this.outputs[this.cases[e]]||this.otherwise).evaluate(t)},Ct.prototype.eachChild=function(t){t(this.input),this.outputs.forEach(t),t(this.otherwise)},Ct.prototype.possibleOutputs=function(){return(t=[]).concat.apply(t,this.outputs.map(function(t){return t.possibleOutputs()})).concat(this.otherwise.possibleOutputs());var t},Ct.prototype.serialize=function(){for(var t=this,e=[\\\"match\\\",this.input.serialize()],r=[],n={},i=0,a=Object.keys(this.cases).sort();i<a.length;i+=1){var o=a[i],s=n[t.cases[o]];void 0===s?(n[t.cases[o]]=r.length,r.push([t.cases[o],[o]])):r[s][1].push(o)}for(var l=function(e){return\\\"number\\\"===t.input.type.kind?Number(e):e},c=0,u=r;c<u.length;c+=1){var f=u[c],h=f[0],p=f[1];1===p.length?e.push(l(p[0])):e.push(p.map(l)),e.push(t.outputs[h].serialize())}return e.push(this.otherwise.serialize()),e};var Lt=function(t,e,r){this.type=t,this.branches=e,this.otherwise=r};function zt(t){return\\\"string\\\"===t.kind||\\\"number\\\"===t.kind||\\\"boolean\\\"===t.kind||\\\"null\\\"===t.kind}function Ot(t,e){return function(){function r(t,e,r){this.type=q,this.lhs=t,this.rhs=e,this.collator=r}return r.parse=function(t,e){if(3!==t.length&&4!==t.length)return e.error(\\\"Expected two or three arguments.\\\");var n=e.parse(t[1],1,W);if(!n)return null;var i=e.parse(t[2],2,W);if(!i)return null;if(!zt(n.type)&&!zt(i.type))return e.error(\\\"Expected at least one argument to be a string, number, boolean, or null, but found (\\\"+$(n.type)+\\\", \\\"+$(i.type)+\\\") instead.\\\");if(n.type.kind!==i.type.kind&&\\\"value\\\"!==n.type.kind&&\\\"value\\\"!==i.type.kind)return e.error(\\\"Cannot compare \\\"+$(n.type)+\\\" and \\\"+$(i.type)+\\\".\\\");var a=null;if(4===t.length){if(\\\"string\\\"!==n.type.kind&&\\\"string\\\"!==i.type.kind)return e.error(\\\"Cannot use collator to compare non-string types.\\\");if(!(a=e.parse(t[3],3,X)))return null}return new r(n,i,a)},r.prototype.evaluate=function(t){var r=this.collator?0===this.collator.evaluate(t).compare(this.lhs.evaluate(t),this.rhs.evaluate(t)):this.lhs.evaluate(t)===this.rhs.evaluate(t);return e?!r:r},r.prototype.eachChild=function(t){t(this.lhs),t(this.rhs),this.collator&&t(this.collator)},r.prototype.possibleOutputs=function(){return[!0,!1]},r.prototype.serialize=function(){var e=[t];return this.eachChild(function(t){e.push(t.serialize())}),e},r}()}Lt.parse=function(t,e){if(t.length<4)return e.error(\\\"Expected at least 3 arguments, but found only \\\"+(t.length-1)+\\\".\\\");if(t.length%2!=0)return e.error(\\\"Expected an odd number of arguments.\\\");var r;e.expectedType&&\\\"value\\\"!==e.expectedType.kind&&(r=e.expectedType);for(var n=[],i=1;i<t.length-1;i+=2){var a=e.parse(t[i],i,q);if(!a)return null;var o=e.parse(t[i+1],i+1,r);if(!o)return null;n.push([a,o]),r=r||o.type}var s=e.parse(t[t.length-1],t.length-1,r);return s?new Lt(r,n,s):null},Lt.prototype.evaluate=function(t){for(var e=0,r=this.branches;e<r.length;e+=1){var n=r[e],i=n[0],a=n[1];if(i.evaluate(t))return a.evaluate(t)}return this.otherwise.evaluate(t)},Lt.prototype.eachChild=function(t){for(var e=0,r=this.branches;e<r.length;e+=1){var n=r[e],i=n[0],a=n[1];t(i),t(a)}t(this.otherwise)},Lt.prototype.possibleOutputs=function(){return(t=[]).concat.apply(t,this.branches.map(function(t){return t[0],t[1].possibleOutputs()})).concat(this.otherwise.possibleOutputs());var t},Lt.prototype.serialize=function(){var t=[\\\"case\\\"];return this.eachChild(function(e){t.push(e.serialize())}),t};var It=Ot(\\\"==\\\",!1),Dt=Ot(\\\"!=\\\",!0),Pt=function(t){this.type=U,this.input=t};Pt.parse=function(t,e){if(2!==t.length)return e.error(\\\"Expected 1 argument, but found \\\"+(t.length-1)+\\\" instead.\\\");var r=e.parse(t[1],1);return r?\\\"array\\\"!==r.type.kind&&\\\"string\\\"!==r.type.kind&&\\\"value\\\"!==r.type.kind?e.error(\\\"Expected argument of type string or array, but found \\\"+$(r.type)+\\\" instead.\\\"):new Pt(r):null},Pt.prototype.evaluate=function(t){var e=this.input.evaluate(t);if(\\\"string\\\"==typeof e)return e.length;if(Array.isArray(e))return e.length;throw new ot(\\\"Expected value to be of type string or array, but found \\\"+$(it(e))+\\\" instead.\\\")},Pt.prototype.eachChild=function(t){t(this.input)},Pt.prototype.possibleOutputs=function(){return[void 0]},Pt.prototype.serialize=function(){var t=[\\\"length\\\"];return this.eachChild(function(e){t.push(e.serialize())}),t};var Rt={\\\"==\\\":It,\\\"!=\\\":Dt,array:ut,at:Et,boolean:lt,case:Lt,coalesce:Mt,collator:rt,interpolate:Tt,length:Pt,let:St,literal:at,match:Ct,number:lt,object:lt,step:_t,string:lt,\\\"to-color\\\":ht,\\\"to-number\\\":ht,var:yt};function Ft(t,e){var r=e[0],n=e[1],i=e[2],a=e[3];r=r.evaluate(t),n=n.evaluate(t),i=i.evaluate(t);var o=a?a.evaluate(t):1,s=nt(r,n,i,o);if(s)throw new ot(s);return new tt(r/255*o,n/255*o,i/255*o,o)}function Bt(t,e){return t in e}function Nt(t,e){var r=e[t];return void 0===r?null:r}function jt(t,e){var r=e[0],n=e[1];return r.evaluate(t)<n.evaluate(t)}function Vt(t,e){var r=e[0],n=e[1];return r.evaluate(t)>n.evaluate(t)}function Ut(t,e){var r=e[0],n=e[1];return r.evaluate(t)<=n.evaluate(t)}function Ht(t,e){var r=e[0],n=e[1];return r.evaluate(t)>=n.evaluate(t)}function qt(t){return{type:t}}function Gt(t){return{result:\\\"success\\\",value:t}}function Yt(t){return{result:\\\"error\\\",value:t}}gt.register(Rt,{error:[{kind:\\\"error\\\"},[H],function(t,e){var r=e[0];throw new ot(r.evaluate(t))}],typeof:[H,[W],function(t,e){return $(it(e[0].evaluate(t)))}],\\\"to-string\\\":[H,[W],function(t,e){var r=e[0],n=typeof(r=r.evaluate(t));return null===r?\\\"\\\":\\\"string\\\"===n||\\\"number\\\"===n||\\\"boolean\\\"===n?String(r):r instanceof tt?r.toString():JSON.stringify(r)}],\\\"to-boolean\\\":[q,[W],function(t,e){var r=e[0];return Boolean(r.evaluate(t))}],\\\"to-rgba\\\":[Z(U,4),[G],function(t,e){return e[0].evaluate(t).toArray()}],rgb:[G,[U,U,U],Ft],rgba:[G,[U,U,U,U],Ft],has:{type:q,overloads:[[[H],function(t,e){return Bt(e[0].evaluate(t),t.properties())}],[[H,Y],function(t,e){var r=e[0],n=e[1];return Bt(r.evaluate(t),n.evaluate(t))}]]},get:{type:W,overloads:[[[H],function(t,e){return Nt(e[0].evaluate(t),t.properties())}],[[H,Y],function(t,e){var r=e[0],n=e[1];return Nt(r.evaluate(t),n.evaluate(t))}]]},properties:[Y,[],function(t){return t.properties()}],\\\"geometry-type\\\":[H,[],function(t){return t.geometryType()}],id:[W,[],function(t){return t.id()}],zoom:[U,[],function(t){return t.globals.zoom}],\\\"heatmap-density\\\":[U,[],function(t){return t.globals.heatmapDensity||0}],\\\"line-progress\\\":[U,[],function(t){return t.globals.lineProgress||0}],\\\"+\\\":[U,qt(U),function(t,e){for(var r=0,n=0,i=e;n<i.length;n+=1)r+=i[n].evaluate(t);return r}],\\\"*\\\":[U,qt(U),function(t,e){for(var r=1,n=0,i=e;n<i.length;n+=1)r*=i[n].evaluate(t);return r}],\\\"-\\\":{type:U,overloads:[[[U,U],function(t,e){var r=e[0],n=e[1];return r.evaluate(t)-n.evaluate(t)}],[[U],function(t,e){return-e[0].evaluate(t)}]]},\\\"/\\\":[U,[U,U],function(t,e){var r=e[0],n=e[1];return r.evaluate(t)/n.evaluate(t)}],\\\"%\\\":[U,[U,U],function(t,e){var r=e[0],n=e[1];return r.evaluate(t)%n.evaluate(t)}],ln2:[U,[],function(){return Math.LN2}],pi:[U,[],function(){return Math.PI}],e:[U,[],function(){return Math.E}],\\\"^\\\":[U,[U,U],function(t,e){var r=e[0],n=e[1];return Math.pow(r.evaluate(t),n.evaluate(t))}],sqrt:[U,[U],function(t,e){var r=e[0];return Math.sqrt(r.evaluate(t))}],log10:[U,[U],function(t,e){var r=e[0];return Math.log10(r.evaluate(t))}],ln:[U,[U],function(t,e){var r=e[0];return Math.log(r.evaluate(t))}],log2:[U,[U],function(t,e){var r=e[0];return Math.log2(r.evaluate(t))}],sin:[U,[U],function(t,e){var r=e[0];return Math.sin(r.evaluate(t))}],cos:[U,[U],function(t,e){var r=e[0];return Math.cos(r.evaluate(t))}],tan:[U,[U],function(t,e){var r=e[0];return Math.tan(r.evaluate(t))}],asin:[U,[U],function(t,e){var r=e[0];return Math.asin(r.evaluate(t))}],acos:[U,[U],function(t,e){var r=e[0];return Math.acos(r.evaluate(t))}],atan:[U,[U],function(t,e){var r=e[0];return Math.atan(r.evaluate(t))}],min:[U,qt(U),function(t,e){return Math.min.apply(Math,e.map(function(e){return e.evaluate(t)}))}],max:[U,qt(U),function(t,e){return Math.max.apply(Math,e.map(function(e){return e.evaluate(t)}))}],abs:[U,[U],function(t,e){var r=e[0];return Math.abs(r.evaluate(t))}],round:[U,[U],function(t,e){var r=e[0].evaluate(t);return r<0?-Math.round(-r):Math.round(r)}],floor:[U,[U],function(t,e){var r=e[0];return Math.floor(r.evaluate(t))}],ceil:[U,[U],function(t,e){var r=e[0];return Math.ceil(r.evaluate(t))}],\\\"filter-==\\\":[q,[H,W],function(t,e){var r=e[0],n=e[1];return t.properties()[r.value]===n.value}],\\\"filter-id-==\\\":[q,[W],function(t,e){var r=e[0];return t.id()===r.value}],\\\"filter-type-==\\\":[q,[H],function(t,e){var r=e[0];return t.geometryType()===r.value}],\\\"filter-<\\\":[q,[H,W],function(t,e){var r=e[0],n=e[1],i=t.properties()[r.value],a=n.value;return typeof i==typeof a&&i<a}],\\\"filter-id-<\\\":[q,[W],function(t,e){var r=e[0],n=t.id(),i=r.value;return typeof n==typeof i&&n<i}],\\\"filter->\\\":[q,[H,W],function(t,e){var r=e[0],n=e[1],i=t.properties()[r.value],a=n.value;return typeof i==typeof a&&i>a}],\\\"filter-id->\\\":[q,[W],function(t,e){var r=e[0],n=t.id(),i=r.value;return typeof n==typeof i&&n>i}],\\\"filter-<=\\\":[q,[H,W],function(t,e){var r=e[0],n=e[1],i=t.properties()[r.value],a=n.value;return typeof i==typeof a&&i<=a}],\\\"filter-id-<=\\\":[q,[W],function(t,e){var r=e[0],n=t.id(),i=r.value;return typeof n==typeof i&&n<=i}],\\\"filter->=\\\":[q,[H,W],function(t,e){var r=e[0],n=e[1],i=t.properties()[r.value],a=n.value;return typeof i==typeof a&&i>=a}],\\\"filter-id->=\\\":[q,[W],function(t,e){var r=e[0],n=t.id(),i=r.value;return typeof n==typeof i&&n>=i}],\\\"filter-has\\\":[q,[W],function(t,e){return e[0].value in t.properties()}],\\\"filter-has-id\\\":[q,[],function(t){return null!==t.id()}],\\\"filter-type-in\\\":[q,[Z(H)],function(t,e){return e[0].value.indexOf(t.geometryType())>=0}],\\\"filter-id-in\\\":[q,[Z(W)],function(t,e){return e[0].value.indexOf(t.id())>=0}],\\\"filter-in-small\\\":[q,[H,Z(W)],function(t,e){var r=e[0];return e[1].value.indexOf(t.properties()[r.value])>=0}],\\\"filter-in-large\\\":[q,[H,Z(W)],function(t,e){var r=e[0],n=e[1];return function(t,e,r,n){for(;r<=n;){var i=r+n>>1;if(e[i]===t)return!0;e[i]>t?n=i-1:r=i+1}return!1}(t.properties()[r.value],n.value,0,n.value.length-1)}],\\\">\\\":{type:q,overloads:[[[U,U],Vt],[[H,H],Vt],[[H,H,X],function(t,e){var r=e[0],n=e[1];return e[2].evaluate(t).compare(r.evaluate(t),n.evaluate(t))>0}]]},\\\"<\\\":{type:q,overloads:[[[U,U],jt],[[H,H],jt],[[H,H,X],function(t,e){var r=e[0],n=e[1];return e[2].evaluate(t).compare(r.evaluate(t),n.evaluate(t))<0}]]},\\\">=\\\":{type:q,overloads:[[[U,U],Ht],[[H,H],Ht],[[H,H,X],function(t,e){var r=e[0],n=e[1];return e[2].evaluate(t).compare(r.evaluate(t),n.evaluate(t))>=0}]]},\\\"<=\\\":{type:q,overloads:[[[U,U],Ut],[[H,H],Ut],[[H,H,X],function(t,e){var r=e[0],n=e[1];return e[2].evaluate(t).compare(r.evaluate(t),n.evaluate(t))<=0}]]},all:{type:q,overloads:[[[q,q],function(t,e){var r=e[0],n=e[1];return r.evaluate(t)&&n.evaluate(t)}],[qt(q),function(t,e){for(var r=0,n=e;r<n.length;r+=1)if(!n[r].evaluate(t))return!1;return!0}]]},any:{type:q,overloads:[[[q,q],function(t,e){var r=e[0],n=e[1];return r.evaluate(t)||n.evaluate(t)}],[qt(q),function(t,e){for(var r=0,n=e;r<n.length;r+=1)if(n[r].evaluate(t))return!0;return!1}]]},\\\"!\\\":[q,[q],function(t,e){return!e[0].evaluate(t)}],\\\"is-supported-script\\\":[q,[H],function(t,e){var r=e[0],n=t.globals&&t.globals.isSupportedScript;return!n||n(r.evaluate(t))}],upcase:[H,[H],function(t,e){return e[0].evaluate(t).toUpperCase()}],downcase:[H,[H],function(t,e){return e[0].evaluate(t).toLowerCase()}],concat:[H,qt(H),function(t,e){return e.map(function(e){return e.evaluate(t)}).join(\\\"\\\")}],\\\"resolved-locale\\\":[H,[X],function(t,e){return e[0].evaluate(t).resolvedLocale()}]});var Wt=.95047,Xt=1,Zt=1.08883,$t=4/29,Jt=6/29,Kt=3*Jt*Jt,Qt=Jt*Jt*Jt,te=Math.PI/180,ee=180/Math.PI;function re(t){return t>Qt?Math.pow(t,1/3):t/Kt+$t}function ne(t){return t>Jt?t*t*t:Kt*(t-$t)}function ie(t){return 255*(t<=.0031308?12.92*t:1.055*Math.pow(t,1/2.4)-.055)}function ae(t){return(t/=255)<=.04045?t/12.92:Math.pow((t+.055)/1.055,2.4)}function oe(t){var e=ae(t.r),r=ae(t.g),n=ae(t.b),i=re((.4124564*e+.3575761*r+.1804375*n)/Wt),a=re((.2126729*e+.7151522*r+.072175*n)/Xt);return{l:116*a-16,a:500*(i-a),b:200*(a-re((.0193339*e+.119192*r+.9503041*n)/Zt)),alpha:t.a}}function se(t){var e=(t.l+16)/116,r=isNaN(t.a)?e:e+t.a/500,n=isNaN(t.b)?e:e-t.b/200;return e=Xt*ne(e),r=Wt*ne(r),n=Zt*ne(n),new tt(ie(3.2404542*r-1.5371385*e-.4985314*n),ie(-.969266*r+1.8760108*e+.041556*n),ie(.0556434*r-.2040259*e+1.0572252*n),t.alpha)}var le={forward:oe,reverse:se,interpolate:function(t,e,r){return{l:wt(t.l,e.l,r),a:wt(t.a,e.a,r),b:wt(t.b,e.b,r),alpha:wt(t.alpha,e.alpha,r)}}},ce={forward:function(t){var e=oe(t),r=e.l,n=e.a,i=e.b,a=Math.atan2(i,n)*ee;return{h:a<0?a+360:a,c:Math.sqrt(n*n+i*i),l:r,alpha:t.a}},reverse:function(t){var e=t.h*te,r=t.c;return se({l:t.l,a:Math.cos(e)*r,b:Math.sin(e)*r,alpha:t.alpha})},interpolate:function(t,e,r){return{h:function(t,e,r){var n=e-t;return t+r*(n>180||n<-180?n-360*Math.round(n/360):n)}(t.h,e.h,r),c:wt(t.c,e.c,r),l:wt(t.l,e.l,r),alpha:wt(t.alpha,e.alpha,r)}}},ue=Object.freeze({lab:le,hcl:ce});function fe(t){return t instanceof Number?\\\"number\\\":t instanceof String?\\\"string\\\":t instanceof Boolean?\\\"boolean\\\":Array.isArray(t)?\\\"array\\\":null===t?\\\"null\\\":typeof t}function he(t){return\\\"object\\\"==typeof t&&null!==t&&!Array.isArray(t)}function pe(t){return t}function de(t,e,r){return void 0!==t?t:void 0!==e?e:void 0!==r?r:void 0}function ge(t,e,r,n,i){return de(typeof r===i?n[r]:void 0,t.default,e.default)}function ve(t,e,r){if(\\\"number\\\"!==fe(r))return de(t.default,e.default);var n=t.stops.length;if(1===n)return t.stops[0][1];if(r<=t.stops[0][0])return t.stops[0][1];if(r>=t.stops[n-1][0])return t.stops[n-1][1];var i=xe(t.stops,r);return t.stops[i][1]}function me(t,e,r){var n=void 0!==t.base?t.base:1;if(\\\"number\\\"!==fe(r))return de(t.default,e.default);var i=t.stops.length;if(1===i)return t.stops[0][1];if(r<=t.stops[0][0])return t.stops[0][1];if(r>=t.stops[i-1][0])return t.stops[i-1][1];var a=xe(t.stops,r),o=function(t,e,r,n){var i=n-r,a=t-r;return 0===i?0:1===e?a/i:(Math.pow(e,a)-1)/(Math.pow(e,i)-1)}(r,n,t.stops[a][0],t.stops[a+1][0]),s=t.stops[a][1],l=t.stops[a+1][1],c=kt[e.type]||pe;if(t.colorSpace&&\\\"rgb\\\"!==t.colorSpace){var u=ue[t.colorSpace];c=function(t,e){return u.reverse(u.interpolate(u.forward(t),u.forward(e),o))}}return\\\"function\\\"==typeof s.evaluate?{evaluate:function(){for(var t=[],e=arguments.length;e--;)t[e]=arguments[e];var r=s.evaluate.apply(void 0,t),n=l.evaluate.apply(void 0,t);if(void 0!==r&&void 0!==n)return c(r,n,o)}}:c(s,l,o)}function ye(t,e,r){return\\\"color\\\"===e.type?r=tt.parse(r):fe(r)===e.type||\\\"enum\\\"===e.type&&e.values[r]||(r=void 0),de(r,t.default,e.default)}function xe(t,e){for(var r,n,i=0,a=t.length-1,o=0;i<=a;){if(r=t[o=Math.floor((i+a)/2)][0],n=t[o+1][0],e===r||e>r&&e<n)return o;r<e?i=o+1:r>e&&(a=o-1)}return Math.max(o-1,0)}var be=function(t,e){var r;this.expression=t,this._warningHistory={},this._defaultValue=\\\"color\\\"===(r=e).type&&he(r.default)?new tt(0,0,0,0):\\\"color\\\"===r.type?tt.parse(r.default)||null:void 0===r.default?null:r.default,\\\"enum\\\"===e.type&&(this._enumValues=e.values)};function _e(t){return Array.isArray(t)&&t.length>0&&\\\"string\\\"==typeof t[0]&&t[0]in Rt}function we(t,e){var r=new xt(Rt,[],function(t){var e={color:G,string:H,number:U,enum:H,boolean:q};return\\\"array\\\"===t.type?Z(e[t.value]||W,t.length):e[t.type]||null}(e)),n=r.parse(t);return n?Gt(new be(n,e)):Yt(r.errors)}be.prototype.evaluateWithoutErrorHandling=function(t,e){return this._evaluator||(this._evaluator=new dt),this._evaluator.globals=t,this._evaluator.feature=e,this.expression.evaluate(this._evaluator)},be.prototype.evaluate=function(t,e){this._evaluator||(this._evaluator=new dt),this._evaluator.globals=t,this._evaluator.feature=e;try{var r=this.expression.evaluate(this._evaluator);if(null==r)return this._defaultValue;if(this._enumValues&&!(r in this._enumValues))throw new ot(\\\"Expected value to be one of \\\"+Object.keys(this._enumValues).map(function(t){return JSON.stringify(t)}).join(\\\", \\\")+\\\", but found \\\"+JSON.stringify(r)+\\\" instead.\\\");return r}catch(t){return this._warningHistory[t.message]||(this._warningHistory[t.message]=!0,\\\"undefined\\\"!=typeof console&&console.warn(t.message)),this._defaultValue}};var ke=function(t,e){this.kind=t,this._styleExpression=e};ke.prototype.evaluateWithoutErrorHandling=function(t,e){return this._styleExpression.evaluateWithoutErrorHandling(t,e)},ke.prototype.evaluate=function(t,e){return this._styleExpression.evaluate(t,e)};var Te=function(t,e,r){this.kind=t,this.zoomStops=r.labels,this._styleExpression=e,r instanceof Tt&&(this._interpolationType=r.interpolation)};function Ae(t,e){if(\\\"error\\\"===(t=we(t,e)).result)return t;var r=t.value.expression,n=vt(r);if(!n&&!e[\\\"property-function\\\"])return Yt([new N(\\\"\\\",\\\"property expressions not supported\\\")]);var i=mt(r,[\\\"zoom\\\"]);if(!i&&!1===e[\\\"zoom-function\\\"])return Yt([new N(\\\"\\\",\\\"zoom expressions not supported\\\")]);var a=function t(e){var r=null;if(e instanceof St)r=t(e.result);else if(e instanceof Mt)for(var n=0,i=e.args;n<i.length;n+=1){var a=i[n];if(r=t(a))break}else(e instanceof _t||e instanceof Tt)&&e.input instanceof gt&&\\\"zoom\\\"===e.input.name&&(r=e);return r instanceof N?r:(e.eachChild(function(e){var n=t(e);n instanceof N?r=n:!r&&n?r=new N(\\\"\\\",'\\\"zoom\\\" expression may only be used as input to a top-level \\\"step\\\" or \\\"interpolate\\\" expression.'):r&&n&&r!==n&&(r=new N(\\\"\\\",'Only one zoom-based \\\"step\\\" or \\\"interpolate\\\" subexpression may be used in an expression.'))}),r)}(r);return a||i?a instanceof N?Yt([a]):a instanceof Tt&&\\\"piecewise-constant\\\"===e.function?Yt([new N(\\\"\\\",'\\\"interpolate\\\" expressions cannot be used with this property')]):Gt(a?new Te(n?\\\"camera\\\":\\\"composite\\\",t.value,a):new ke(n?\\\"constant\\\":\\\"source\\\",t.value)):Yt([new N(\\\"\\\",'\\\"zoom\\\" expression may only be used as input to a top-level \\\"step\\\" or \\\"interpolate\\\" expression.')])}Te.prototype.evaluateWithoutErrorHandling=function(t,e){return this._styleExpression.evaluateWithoutErrorHandling(t,e)},Te.prototype.evaluate=function(t,e){return this._styleExpression.evaluate(t,e)},Te.prototype.interpolationFactor=function(t,e,r){return this._interpolationType?Tt.interpolationFactor(this._interpolationType,t,e,r):0};var Me=function(t,e){this._parameters=t,this._specification=e,R(this,function t(e,r){var n,i,a,o=\\\"color\\\"===r.type,s=e.stops&&\\\"object\\\"==typeof e.stops[0][0],l=s||void 0!==e.property,c=s||!l,u=e.type||(\\\"interpolated\\\"===r.function?\\\"exponential\\\":\\\"interval\\\");if(o&&((e=R({},e)).stops&&(e.stops=e.stops.map(function(t){return[t[0],tt.parse(t[1])]})),e.default?e.default=tt.parse(e.default):e.default=tt.parse(r.default)),e.colorSpace&&\\\"rgb\\\"!==e.colorSpace&&!ue[e.colorSpace])throw new Error(\\\"Unknown color space: \\\"+e.colorSpace);if(\\\"exponential\\\"===u)n=me;else if(\\\"interval\\\"===u)n=ve;else if(\\\"categorical\\\"===u){n=ge,i=Object.create(null);for(var f=0,h=e.stops;f<h.length;f+=1){var p=h[f];i[p[0]]=p[1]}a=typeof e.stops[0][0]}else{if(\\\"identity\\\"!==u)throw new Error('Unknown function type \\\"'+u+'\\\"');n=ye}if(s){for(var d={},g=[],v=0;v<e.stops.length;v++){var m=e.stops[v],y=m[0].zoom;void 0===d[y]&&(d[y]={zoom:y,type:e.type,property:e.property,default:e.default,stops:[]},g.push(y)),d[y].stops.push([m[0].value,m[1]])}for(var x=[],b=0,_=g;b<_.length;b+=1){var w=_[b];x.push([d[w].zoom,t(d[w],r)])}return{kind:\\\"composite\\\",interpolationFactor:Tt.interpolationFactor.bind(void 0,{name:\\\"linear\\\"}),zoomStops:x.map(function(t){return t[0]}),evaluate:function(t,n){var i=t.zoom;return me({stops:x,base:e.base},r,i).evaluate(i,n)}}}return c?{kind:\\\"camera\\\",interpolationFactor:\\\"exponential\\\"===u?Tt.interpolationFactor.bind(void 0,{name:\\\"exponential\\\",base:void 0!==e.base?e.base:1}):function(){return 0},zoomStops:e.stops.map(function(t){return t[0]}),evaluate:function(t){var o=t.zoom;return n(e,r,o,i,a)}}:{kind:\\\"source\\\",evaluate:function(t,o){var s=o&&o.properties?o.properties[e.property]:void 0;return void 0===s?de(e.default,r.default):n(e,r,s,i,a)}}}(this._parameters,this._specification))};function Se(t,e){if(he(t))return new Me(t,e);if(_e(t)){var r=Ae(t,e);if(\\\"error\\\"===r.result)throw new Error(r.value.map(function(t){return t.key+\\\": \\\"+t.message}).join(\\\", \\\"));return r.value}var n=t;return\\\"string\\\"==typeof t&&\\\"color\\\"===e.type&&(n=tt.parse(t)),{kind:\\\"constant\\\",evaluate:function(){return n}}}function Ee(t){var e=t.key,r=t.value,n=t.valueSpec||{},i=t.objectElementValidators||{},a=t.style,o=t.styleSpec,s=[],l=fe(r);if(\\\"object\\\"!==l)return[new D(e,r,\\\"object expected, \\\"+l+\\\" found\\\")];for(var c in r){var u=c.split(\\\".\\\")[0],f=n[u]||n[\\\"*\\\"],h=void 0;if(i[u])h=i[u];else if(n[u])h=Ke;else if(i[\\\"*\\\"])h=i[\\\"*\\\"];else{if(!n[\\\"*\\\"]){s.push(new D(e,r[c],'unknown property \\\"'+c+'\\\"'));continue}h=Ke}s=s.concat(h({key:(e?e+\\\".\\\":e)+c,value:r[c],valueSpec:f,style:a,styleSpec:o,object:r,objectKey:c},r))}for(var p in n)i[p]||n[p].required&&void 0===n[p].default&&void 0===r[p]&&s.push(new D(e,r,'missing required property \\\"'+p+'\\\"'));return s}function Ce(t){var e=t.value,r=t.valueSpec,n=t.style,i=t.styleSpec,a=t.key,o=t.arrayElementValidator||Ke;if(\\\"array\\\"!==fe(e))return[new D(a,e,\\\"array expected, \\\"+fe(e)+\\\" found\\\")];if(r.length&&e.length!==r.length)return[new D(a,e,\\\"array length \\\"+r.length+\\\" expected, length \\\"+e.length+\\\" found\\\")];if(r[\\\"min-length\\\"]&&e.length<r[\\\"min-length\\\"])return[new D(a,e,\\\"array length at least \\\"+r[\\\"min-length\\\"]+\\\" expected, length \\\"+e.length+\\\" found\\\")];var s={type:r.value};i.$version<7&&(s.function=r.function),\\\"object\\\"===fe(r.value)&&(s=r.value);for(var l=[],c=0;c<e.length;c++)l=l.concat(o({array:e,arrayIndex:c,value:e[c],valueSpec:s,style:n,styleSpec:i,key:a+\\\"[\\\"+c+\\\"]\\\"}));return l}function Le(t){var e=t.key,r=t.value,n=t.valueSpec,i=fe(r);return\\\"number\\\"!==i?[new D(e,r,\\\"number expected, \\\"+i+\\\" found\\\")]:\\\"minimum\\\"in n&&r<n.minimum?[new D(e,r,r+\\\" is less than the minimum value \\\"+n.minimum)]:\\\"maximum\\\"in n&&r>n.maximum?[new D(e,r,r+\\\" is greater than the maximum value \\\"+n.maximum)]:[]}function ze(t){var e,r,n,i=t.valueSpec,a=F(t.value.type),o={},s=\\\"categorical\\\"!==a&&void 0===t.value.property,l=!s,c=\\\"array\\\"===fe(t.value.stops)&&\\\"array\\\"===fe(t.value.stops[0])&&\\\"object\\\"===fe(t.value.stops[0][0]),u=Ee({key:t.key,value:t.value,valueSpec:t.styleSpec.function,style:t.style,styleSpec:t.styleSpec,objectElementValidators:{stops:function(t){if(\\\"identity\\\"===a)return[new D(t.key,t.value,'identity function may not have a \\\"stops\\\" property')];var e=[],r=t.value;return e=e.concat(Ce({key:t.key,value:r,valueSpec:t.valueSpec,style:t.style,styleSpec:t.styleSpec,arrayElementValidator:f})),\\\"array\\\"===fe(r)&&0===r.length&&e.push(new D(t.key,r,\\\"array must have at least one stop\\\")),e},default:function(t){return Ke({key:t.key,value:t.value,valueSpec:i,style:t.style,styleSpec:t.styleSpec})}}});return\\\"identity\\\"===a&&s&&u.push(new D(t.key,t.value,'missing required property \\\"property\\\"')),\\\"identity\\\"===a||t.value.stops||u.push(new D(t.key,t.value,'missing required property \\\"stops\\\"')),\\\"exponential\\\"===a&&\\\"piecewise-constant\\\"===t.valueSpec.function&&u.push(new D(t.key,t.value,\\\"exponential functions not supported\\\")),t.styleSpec.$version>=8&&(l&&!t.valueSpec[\\\"property-function\\\"]?u.push(new D(t.key,t.value,\\\"property functions not supported\\\")):s&&!t.valueSpec[\\\"zoom-function\\\"]&&\\\"heatmap-color\\\"!==t.objectKey&&\\\"line-gradient\\\"!==t.objectKey&&u.push(new D(t.key,t.value,\\\"zoom functions not supported\\\"))),\\\"categorical\\\"!==a&&!c||void 0!==t.value.property||u.push(new D(t.key,t.value,'\\\"property\\\" property is required')),u;function f(t){var e=[],a=t.value,s=t.key;if(\\\"array\\\"!==fe(a))return[new D(s,a,\\\"array expected, \\\"+fe(a)+\\\" found\\\")];if(2!==a.length)return[new D(s,a,\\\"array length 2 expected, length \\\"+a.length+\\\" found\\\")];if(c){if(\\\"object\\\"!==fe(a[0]))return[new D(s,a,\\\"object expected, \\\"+fe(a[0])+\\\" found\\\")];if(void 0===a[0].zoom)return[new D(s,a,\\\"object stop key must have zoom\\\")];if(void 0===a[0].value)return[new D(s,a,\\\"object stop key must have value\\\")];if(n&&n>F(a[0].zoom))return[new D(s,a[0].zoom,\\\"stop zoom values must appear in ascending order\\\")];F(a[0].zoom)!==n&&(n=F(a[0].zoom),r=void 0,o={}),e=e.concat(Ee({key:s+\\\"[0]\\\",value:a[0],valueSpec:{zoom:{}},style:t.style,styleSpec:t.styleSpec,objectElementValidators:{zoom:Le,value:h}}))}else e=e.concat(h({key:s+\\\"[0]\\\",value:a[0],valueSpec:{},style:t.style,styleSpec:t.styleSpec},a));return e.concat(Ke({key:s+\\\"[1]\\\",value:a[1],valueSpec:i,style:t.style,styleSpec:t.styleSpec}))}function h(t,n){var s=fe(t.value),l=F(t.value),c=null!==t.value?t.value:n;if(e){if(s!==e)return[new D(t.key,c,s+\\\" stop domain type must match previous stop domain type \\\"+e)]}else e=s;if(\\\"number\\\"!==s&&\\\"string\\\"!==s&&\\\"boolean\\\"!==s)return[new D(t.key,c,\\\"stop domain value must be a number, string, or boolean\\\")];if(\\\"number\\\"!==s&&\\\"categorical\\\"!==a){var u=\\\"number expected, \\\"+s+\\\" found\\\";return i[\\\"property-function\\\"]&&void 0===a&&(u+='\\\\nIf you intended to use a categorical function, specify `\\\"type\\\": \\\"categorical\\\"`.'),[new D(t.key,c,u)]}return\\\"categorical\\\"!==a||\\\"number\\\"!==s||isFinite(l)&&Math.floor(l)===l?\\\"categorical\\\"!==a&&\\\"number\\\"===s&&void 0!==r&&l<r?[new D(t.key,c,\\\"stop domain values must appear in ascending order\\\")]:(r=l,\\\"categorical\\\"===a&&l in o?[new D(t.key,c,\\\"stop domain values must be unique\\\")]:(o[l]=!0,[])):[new D(t.key,c,\\\"integer expected, found \\\"+l)]}}function Oe(t){var e=(\\\"property\\\"===t.expressionContext?Ae:we)(B(t.value),t.valueSpec);return\\\"error\\\"===e.result?e.value.map(function(e){return new D(\\\"\\\"+t.key+e.key,t.value,e.message)}):\\\"property\\\"===t.expressionContext&&\\\"text-font\\\"===t.propertyKey&&-1!==e.value._styleExpression.expression.possibleOutputs().indexOf(void 0)?[new D(t.key,t.value,'Invalid data expression for \\\"text-font\\\". Output values must be contained as literals within the expression.')]:[]}function Ie(t){var e=t.key,r=t.value,n=t.valueSpec,i=[];return Array.isArray(n.values)?-1===n.values.indexOf(F(r))&&i.push(new D(e,r,\\\"expected one of [\\\"+n.values.join(\\\", \\\")+\\\"], \\\"+JSON.stringify(r)+\\\" found\\\")):-1===Object.keys(n.values).indexOf(F(r))&&i.push(new D(e,r,\\\"expected one of [\\\"+Object.keys(n.values).join(\\\", \\\")+\\\"], \\\"+JSON.stringify(r)+\\\" found\\\")),i}function De(t){if(!Array.isArray(t)||0===t.length)return!1;switch(t[0]){case\\\"has\\\":return t.length>=2&&\\\"$id\\\"!==t[1]&&\\\"$type\\\"!==t[1];case\\\"in\\\":case\\\"!in\\\":case\\\"!has\\\":case\\\"none\\\":return!1;case\\\"==\\\":case\\\"!=\\\":case\\\">\\\":case\\\">=\\\":case\\\"<\\\":case\\\"<=\\\":return 3===t.length&&(Array.isArray(t[1])||Array.isArray(t[2]));case\\\"any\\\":case\\\"all\\\":for(var e=0,r=t.slice(1);e<r.length;e+=1){var n=r[e];if(!De(n)&&\\\"boolean\\\"!=typeof n)return!1}return!0;default:return!0}}Me.deserialize=function(t){return new Me(t._parameters,t._specification)},Me.serialize=function(t){return{_parameters:t._parameters,_specification:t._specification}};var Pe={type:\\\"boolean\\\",default:!1,function:!0,\\\"property-function\\\":!0,\\\"zoom-function\\\":!0};function Re(t){if(!t)return function(){return!0};De(t)||(t=Be(t));var e=we(t,Pe);if(\\\"error\\\"===e.result)throw new Error(e.value.map(function(t){return t.key+\\\": \\\"+t.message}).join(\\\", \\\"));return function(t,r){return e.value.evaluate(t,r)}}function Fe(t,e){return t<e?-1:t>e?1:0}function Be(t){if(!t)return!0;var e,r=t[0];return t.length<=1?\\\"any\\\"!==r:\\\"==\\\"===r?Ne(t[1],t[2],\\\"==\\\"):\\\"!=\\\"===r?Ue(Ne(t[1],t[2],\\\"==\\\")):\\\"<\\\"===r||\\\">\\\"===r||\\\"<=\\\"===r||\\\">=\\\"===r?Ne(t[1],t[2],r):\\\"any\\\"===r?(e=t.slice(1),[\\\"any\\\"].concat(e.map(Be))):\\\"all\\\"===r?[\\\"all\\\"].concat(t.slice(1).map(Be)):\\\"none\\\"===r?[\\\"all\\\"].concat(t.slice(1).map(Be).map(Ue)):\\\"in\\\"===r?je(t[1],t.slice(2)):\\\"!in\\\"===r?Ue(je(t[1],t.slice(2))):\\\"has\\\"===r?Ve(t[1]):\\\"!has\\\"!==r||Ue(Ve(t[1]))}function Ne(t,e,r){switch(t){case\\\"$type\\\":return[\\\"filter-type-\\\"+r,e];case\\\"$id\\\":return[\\\"filter-id-\\\"+r,e];default:return[\\\"filter-\\\"+r,t,e]}}function je(t,e){if(0===e.length)return!1;switch(t){case\\\"$type\\\":return[\\\"filter-type-in\\\",[\\\"literal\\\",e]];case\\\"$id\\\":return[\\\"filter-id-in\\\",[\\\"literal\\\",e]];default:return e.length>200&&!e.some(function(t){return typeof t!=typeof e[0]})?[\\\"filter-in-large\\\",t,[\\\"literal\\\",e.sort(Fe)]]:[\\\"filter-in-small\\\",t,[\\\"literal\\\",e]]}}function Ve(t){switch(t){case\\\"$type\\\":return!0;case\\\"$id\\\":return[\\\"filter-has-id\\\"];default:return[\\\"filter-has\\\",t]}}function Ue(t){return[\\\"!\\\",t]}function He(t){return De(B(t.value))?Oe(R({},t,{expressionContext:\\\"filter\\\",valueSpec:{value:\\\"boolean\\\"}})):function t(e){var r=e.value,n=e.key;if(\\\"array\\\"!==fe(r))return[new D(n,r,\\\"array expected, \\\"+fe(r)+\\\" found\\\")];var i,a=e.styleSpec,o=[];if(r.length<1)return[new D(n,r,\\\"filter array must have at least 1 element\\\")];switch(o=o.concat(Ie({key:n+\\\"[0]\\\",value:r[0],valueSpec:a.filter_operator,style:e.style,styleSpec:e.styleSpec})),F(r[0])){case\\\"<\\\":case\\\"<=\\\":case\\\">\\\":case\\\">=\\\":r.length>=2&&\\\"$type\\\"===F(r[1])&&o.push(new D(n,r,'\\\"$type\\\" cannot be use with operator \\\"'+r[0]+'\\\"'));case\\\"==\\\":case\\\"!=\\\":3!==r.length&&o.push(new D(n,r,'filter array for operator \\\"'+r[0]+'\\\" must have 3 elements'));case\\\"in\\\":case\\\"!in\\\":r.length>=2&&\\\"string\\\"!==(i=fe(r[1]))&&o.push(new D(n+\\\"[1]\\\",r[1],\\\"string expected, \\\"+i+\\\" found\\\"));for(var s=2;s<r.length;s++)i=fe(r[s]),\\\"$type\\\"===F(r[1])?o=o.concat(Ie({key:n+\\\"[\\\"+s+\\\"]\\\",value:r[s],valueSpec:a.geometry_type,style:e.style,styleSpec:e.styleSpec})):\\\"string\\\"!==i&&\\\"number\\\"!==i&&\\\"boolean\\\"!==i&&o.push(new D(n+\\\"[\\\"+s+\\\"]\\\",r[s],\\\"string, number, or boolean expected, \\\"+i+\\\" found\\\"));break;case\\\"any\\\":case\\\"all\\\":case\\\"none\\\":for(var l=1;l<r.length;l++)o=o.concat(t({key:n+\\\"[\\\"+l+\\\"]\\\",value:r[l],style:e.style,styleSpec:e.styleSpec}));break;case\\\"has\\\":case\\\"!has\\\":i=fe(r[1]),2!==r.length?o.push(new D(n,r,'filter array for \\\"'+r[0]+'\\\" operator must have 2 elements')):\\\"string\\\"!==i&&o.push(new D(n+\\\"[1]\\\",r[1],\\\"string expected, \\\"+i+\\\" found\\\"))}return o}(t)}function qe(t,e){var r=t.key,n=t.style,i=t.styleSpec,a=t.value,o=t.objectKey,s=i[e+\\\"_\\\"+t.layerType];if(!s)return[];var l=o.match(/^(.*)-transition$/);if(\\\"paint\\\"===e&&l&&s[l[1]]&&s[l[1]].transition)return Ke({key:r,value:a,valueSpec:i.transition,style:n,styleSpec:i});var c,u=t.valueSpec||s[o];if(!u)return[new D(r,a,'unknown property \\\"'+o+'\\\"')];if(\\\"string\\\"===fe(a)&&u[\\\"property-function\\\"]&&!u.tokens&&(c=/^{([^}]+)}$/.exec(a)))return[new D(r,a,'\\\"'+o+'\\\" does not support interpolation syntax\\\\nUse an identity property function instead: `{ \\\"type\\\": \\\"identity\\\", \\\"property\\\": '+JSON.stringify(c[1])+\\\" }`.\\\")];var f=[];return\\\"symbol\\\"===t.layerType&&(\\\"text-field\\\"===o&&n&&!n.glyphs&&f.push(new D(r,a,'use of \\\"text-field\\\" requires a style \\\"glyphs\\\" property')),\\\"text-font\\\"===o&&he(B(a))&&\\\"identity\\\"===F(a.type)&&f.push(new D(r,a,'\\\"text-font\\\" does not support identity functions'))),f.concat(Ke({key:t.key,value:a,valueSpec:u,style:n,styleSpec:i,expressionContext:\\\"property\\\",propertyKey:o}))}function Ge(t){return qe(t,\\\"paint\\\")}function Ye(t){return qe(t,\\\"layout\\\")}function We(t){var e=[],r=t.value,n=t.key,i=t.style,a=t.styleSpec;r.type||r.ref||e.push(new D(n,r,'either \\\"type\\\" or \\\"ref\\\" is required'));var o,s=F(r.type),l=F(r.ref);if(r.id)for(var c=F(r.id),u=0;u<t.arrayIndex;u++){var f=i.layers[u];F(f.id)===c&&e.push(new D(n,r.id,'duplicate layer id \\\"'+r.id+'\\\", previously used at line '+f.id.__line__))}if(\\\"ref\\\"in r)[\\\"type\\\",\\\"source\\\",\\\"source-layer\\\",\\\"filter\\\",\\\"layout\\\"].forEach(function(t){t in r&&e.push(new D(n,r[t],'\\\"'+t+'\\\" is prohibited for ref layers'))}),i.layers.forEach(function(t){F(t.id)===l&&(o=t)}),o?o.ref?e.push(new D(n,r.ref,\\\"ref cannot reference another ref layer\\\")):s=F(o.type):e.push(new D(n,r.ref,'ref layer \\\"'+l+'\\\" not found'));else if(\\\"background\\\"!==s)if(r.source){var h=i.sources&&i.sources[r.source],p=h&&F(h.type);h?\\\"vector\\\"===p&&\\\"raster\\\"===s?e.push(new D(n,r.source,'layer \\\"'+r.id+'\\\" requires a raster source')):\\\"raster\\\"===p&&\\\"raster\\\"!==s?e.push(new D(n,r.source,'layer \\\"'+r.id+'\\\" requires a vector source')):\\\"vector\\\"!==p||r[\\\"source-layer\\\"]?\\\"raster-dem\\\"===p&&\\\"hillshade\\\"!==s?e.push(new D(n,r.source,\\\"raster-dem source can only be used with layer type 'hillshade'.\\\")):\\\"line\\\"!==s||!r.paint||!r.paint[\\\"line-gradient\\\"]||\\\"geojson\\\"===p&&h.lineMetrics||e.push(new D(n,r,'layer \\\"'+r.id+'\\\" specifies a line-gradient, which requires a GeoJSON source with `lineMetrics` enabled.')):e.push(new D(n,r,'layer \\\"'+r.id+'\\\" must specify a \\\"source-layer\\\"')):e.push(new D(n,r.source,'source \\\"'+r.source+'\\\" not found'))}else e.push(new D(n,r,'missing required property \\\"source\\\"'));return e=e.concat(Ee({key:n,value:r,valueSpec:a.layer,style:t.style,styleSpec:t.styleSpec,objectElementValidators:{\\\"*\\\":function(){return[]},type:function(){return Ke({key:n+\\\".type\\\",value:r.type,valueSpec:a.layer.type,style:t.style,styleSpec:t.styleSpec,object:r,objectKey:\\\"type\\\"})},filter:He,layout:function(t){return Ee({layer:r,key:t.key,value:t.value,style:t.style,styleSpec:t.styleSpec,objectElementValidators:{\\\"*\\\":function(t){return Ye(R({layerType:s},t))}}})},paint:function(t){return Ee({layer:r,key:t.key,value:t.value,style:t.style,styleSpec:t.styleSpec,objectElementValidators:{\\\"*\\\":function(t){return Ge(R({layerType:s},t))}}})}}}))}function Xe(t){var e=t.value,r=t.key,n=t.styleSpec,i=t.style;if(!e.type)return[new D(r,e,'\\\"type\\\" is required')];var a=F(e.type),o=[];switch(a){case\\\"vector\\\":case\\\"raster\\\":case\\\"raster-dem\\\":if(o=o.concat(Ee({key:r,value:e,valueSpec:n[\\\"source_\\\"+a.replace(\\\"-\\\",\\\"_\\\")],style:t.style,styleSpec:n})),\\\"url\\\"in e)for(var s in e)[\\\"type\\\",\\\"url\\\",\\\"tileSize\\\"].indexOf(s)<0&&o.push(new D(r+\\\".\\\"+s,e[s],'a source with a \\\"url\\\" property may not include a \\\"'+s+'\\\" property'));return o;case\\\"geojson\\\":return Ee({key:r,value:e,valueSpec:n.source_geojson,style:i,styleSpec:n});case\\\"video\\\":return Ee({key:r,value:e,valueSpec:n.source_video,style:i,styleSpec:n});case\\\"image\\\":return Ee({key:r,value:e,valueSpec:n.source_image,style:i,styleSpec:n});case\\\"canvas\\\":return o.push(new D(r,null,\\\"Please use runtime APIs to add canvas sources, rather than including them in stylesheets.\\\",\\\"source.canvas\\\")),o;default:return Ie({key:r+\\\".type\\\",value:e.type,valueSpec:{values:[\\\"vector\\\",\\\"raster\\\",\\\"raster-dem\\\",\\\"geojson\\\",\\\"video\\\",\\\"image\\\"]},style:i,styleSpec:n})}}function Ze(t){var e=t.value,r=t.styleSpec,n=r.light,i=t.style,a=[],o=fe(e);if(void 0===e)return a;if(\\\"object\\\"!==o)return a.concat([new D(\\\"light\\\",e,\\\"object expected, \\\"+o+\\\" found\\\")]);for(var s in e){var l=s.match(/^(.*)-transition$/);a=l&&n[l[1]]&&n[l[1]].transition?a.concat(Ke({key:s,value:e[s],valueSpec:r.transition,style:i,styleSpec:r})):n[s]?a.concat(Ke({key:s,value:e[s],valueSpec:n[s],style:i,styleSpec:r})):a.concat([new D(s,e[s],'unknown property \\\"'+s+'\\\"')])}return a}function $e(t){var e=t.value,r=t.key,n=fe(e);return\\\"string\\\"!==n?[new D(r,e,\\\"string expected, \\\"+n+\\\" found\\\")]:[]}var Je={\\\"*\\\":function(){return[]},array:Ce,boolean:function(t){var e=t.value,r=t.key,n=fe(e);return\\\"boolean\\\"!==n?[new D(r,e,\\\"boolean expected, \\\"+n+\\\" found\\\")]:[]},number:Le,color:function(t){var e=t.key,r=t.value,n=fe(r);return\\\"string\\\"!==n?[new D(e,r,\\\"color expected, \\\"+n+\\\" found\\\")]:null===Q(r)?[new D(e,r,'color expected, \\\"'+r+'\\\" found')]:[]},constants:P,enum:Ie,filter:He,function:ze,layer:We,object:Ee,source:Xe,light:Ze,string:$e};function Ke(t){var e=t.value,r=t.valueSpec,n=t.styleSpec;return r.function&&he(F(e))?ze(t):r.function&&_e(B(e))?Oe(t):r.type&&Je[r.type]?Je[r.type](t):Ee(R({},t,{valueSpec:r.type?n[r.type]:r}))}function Qe(t){var e=t.value,r=t.key,n=$e(t);return n.length?n:(-1===e.indexOf(\\\"{fontstack}\\\")&&n.push(new D(r,e,'\\\"glyphs\\\" url must include a \\\"{fontstack}\\\" token')),-1===e.indexOf(\\\"{range}\\\")&&n.push(new D(r,e,'\\\"glyphs\\\" url must include a \\\"{range}\\\" token')),n)}function tr(t,e){e=e||I;var r=[];return r=r.concat(Ke({key:\\\"\\\",value:t,valueSpec:e.$root,styleSpec:e,style:t,objectElementValidators:{glyphs:Qe,\\\"*\\\":function(){return[]}}})),t.constants&&(r=r.concat(P({key:\\\"constants\\\",value:t.constants,style:t,styleSpec:e}))),er(r)}function er(t){return[].concat(t).sort(function(t,e){return t.line-e.line})}function rr(t){return function(){return er(t.apply(this,arguments))}}tr.source=rr(Xe),tr.light=rr(Ze),tr.layer=rr(We),tr.filter=rr(He),tr.paintProperty=rr(Ge),tr.layoutProperty=rr(Ye);var nr=tr,ir=tr.light,ar=tr.paintProperty,or=tr.layoutProperty;function sr(t,e){var r=!1;if(e&&e.length)for(var n=0,i=e;n<i.length;n+=1){var a=i[n];t.fire(new z(new Error(a.message))),r=!0}return r}var lr=ur,cr=3;function ur(t,e,r){var n=this.cells=[];if(t instanceof ArrayBuffer){this.arrayBuffer=t;var i=new Int32Array(this.arrayBuffer);t=i[0],e=i[1],r=i[2],this.d=e+2*r;for(var a=0;a<this.d*this.d;a++){var o=i[cr+a],s=i[cr+a+1];n.push(o===s?null:i.subarray(o,s))}var l=i[cr+n.length],c=i[cr+n.length+1];this.keys=i.subarray(l,c),this.bboxes=i.subarray(c),this.insert=this._insertReadonly}else{this.d=e+2*r;for(var u=0;u<this.d*this.d;u++)n.push([]);this.keys=[],this.bboxes=[]}this.n=e,this.extent=t,this.padding=r,this.scale=e/t,this.uid=0;var f=r/e*t;this.min=-f,this.max=t+f}ur.prototype.insert=function(t,e,r,n,i){this._forEachCell(e,r,n,i,this._insertCell,this.uid++),this.keys.push(t),this.bboxes.push(e),this.bboxes.push(r),this.bboxes.push(n),this.bboxes.push(i)},ur.prototype._insertReadonly=function(){throw\\\"Cannot insert into a GridIndex created from an ArrayBuffer.\\\"},ur.prototype._insertCell=function(t,e,r,n,i,a){this.cells[i].push(a)},ur.prototype.query=function(t,e,r,n){var i=this.min,a=this.max;if(t<=i&&e<=i&&a<=r&&a<=n)return Array.prototype.slice.call(this.keys);var o=[];return this._forEachCell(t,e,r,n,this._queryCell,o,{}),o},ur.prototype._queryCell=function(t,e,r,n,i,a,o){var s=this.cells[i];if(null!==s)for(var l=this.keys,c=this.bboxes,u=0;u<s.length;u++){var f=s[u];if(void 0===o[f]){var h=4*f;t<=c[h+2]&&e<=c[h+3]&&r>=c[h+0]&&n>=c[h+1]?(o[f]=!0,a.push(l[f])):o[f]=!1}}},ur.prototype._forEachCell=function(t,e,r,n,i,a,o){for(var s=this._convertToCellCoord(t),l=this._convertToCellCoord(e),c=this._convertToCellCoord(r),u=this._convertToCellCoord(n),f=s;f<=c;f++)for(var h=l;h<=u;h++){var p=this.d*h+f;if(i.call(this,t,e,r,n,p,a,o))return}},ur.prototype._convertToCellCoord=function(t){return Math.max(0,Math.min(this.d-1,Math.floor(t*this.scale)+this.padding))},ur.prototype.toArrayBuffer=function(){if(this.arrayBuffer)return this.arrayBuffer;for(var t=this.cells,e=cr+this.cells.length+1+1,r=0,n=0;n<this.cells.length;n++)r+=this.cells[n].length;var i=new Int32Array(e+r+this.keys.length+this.bboxes.length);i[0]=this.extent,i[1]=this.n,i[2]=this.padding;for(var a=e,o=0;o<t.length;o++){var s=t[o];i[cr+o]=a,i.set(s,a),a+=s.length}return i[cr+t.length]=a,i.set(this.keys,a),a+=this.keys.length,i[cr+t.length+1]=a,i.set(this.bboxes,a),a+=this.bboxes.length,i.buffer};var fr=self.ImageData,hr={};function pr(t,e,r){void 0===r&&(r={}),Object.defineProperty(e,\\\"_classRegistryKey\\\",{value:t,writeable:!1}),hr[t]={klass:e,omit:r.omit||[],shallow:r.shallow||[]}}for(var dr in pr(\\\"Object\\\",Object),lr.serialize=function(t,e){var r=t.toArrayBuffer();return e&&e.push(r),r},lr.deserialize=function(t){return new lr(t)},pr(\\\"Grid\\\",lr),pr(\\\"Color\\\",tt),pr(\\\"Error\\\",Error),pr(\\\"StylePropertyFunction\\\",Me),pr(\\\"StyleExpression\\\",be,{omit:[\\\"_evaluator\\\"]}),pr(\\\"ZoomDependentExpression\\\",Te),pr(\\\"ZoomConstantExpression\\\",ke),pr(\\\"CompoundExpression\\\",gt,{omit:[\\\"_evaluate\\\"]}),Rt)Rt[dr]._classRegistryKey||pr(\\\"Expression_\\\"+dr,Rt[dr]);function gr(t,e){if(null==t||\\\"boolean\\\"==typeof t||\\\"number\\\"==typeof t||\\\"string\\\"==typeof t||t instanceof Boolean||t instanceof Number||t instanceof String||t instanceof Date||t instanceof RegExp)return t;if(t instanceof ArrayBuffer)return e&&e.push(t),t;if(ArrayBuffer.isView(t)){var r=t;return e&&e.push(r.buffer),r}if(t instanceof fr)return e&&e.push(t.data.buffer),t;if(Array.isArray(t)){for(var n=[],i=0,a=t;i<a.length;i+=1){var o=a[i];n.push(gr(o,e))}return n}if(\\\"object\\\"==typeof t){var s=t.constructor,l=s._classRegistryKey;if(!l)throw new Error(\\\"can't serialize object of unregistered class\\\");var c={};if(s.serialize)c._serialized=s.serialize(t,e);else{for(var u in t)if(t.hasOwnProperty(u)&&!(hr[l].omit.indexOf(u)>=0)){var f=t[u];c[u]=hr[l].shallow.indexOf(u)>=0?f:gr(f,e)}t instanceof Error&&(c.message=t.message)}return{name:l,properties:c}}throw new Error(\\\"can't serialize object of type \\\"+typeof t)}function vr(t){if(null==t||\\\"boolean\\\"==typeof t||\\\"number\\\"==typeof t||\\\"string\\\"==typeof t||t instanceof Boolean||t instanceof Number||t instanceof String||t instanceof Date||t instanceof RegExp||t instanceof ArrayBuffer||ArrayBuffer.isView(t)||t instanceof fr)return t;if(Array.isArray(t))return t.map(function(t){return vr(t)});if(\\\"object\\\"==typeof t){var e=t,r=e.name,n=e.properties;if(!r)throw new Error(\\\"can't deserialize object of anonymous class\\\");var i=hr[r].klass;if(!i)throw new Error(\\\"can't deserialize unregistered class \\\"+r);if(i.deserialize)return i.deserialize(n._serialized);for(var a=Object.create(i.prototype),o=0,s=Object.keys(n);o<s.length;o+=1){var l=s[o];a[l]=hr[r].shallow.indexOf(l)>=0?n[l]:vr(n[l])}return a}throw new Error(\\\"can't deserialize object of type \\\"+typeof t)}var mr=function(){this.first=!0};mr.prototype.update=function(t,e){var r=Math.floor(t);return this.first?(this.first=!1,this.lastIntegerZoom=r,this.lastIntegerZoomTime=0,this.lastZoom=t,this.lastFloorZoom=r,!0):(this.lastFloorZoom>r?(this.lastIntegerZoom=r+1,this.lastIntegerZoomTime=e):this.lastFloorZoom<r&&(this.lastIntegerZoom=r,this.lastIntegerZoomTime=e),t!==this.lastZoom&&(this.lastZoom=t,this.lastFloorZoom=r,!0))};var yr={\\\"Latin-1 Supplement\\\":function(t){return t>=128&&t<=255},Arabic:function(t){return t>=1536&&t<=1791},\\\"Arabic Supplement\\\":function(t){return t>=1872&&t<=1919},\\\"Arabic Extended-A\\\":function(t){return t>=2208&&t<=2303},\\\"Hangul Jamo\\\":function(t){return t>=4352&&t<=4607},\\\"Unified Canadian Aboriginal Syllabics\\\":function(t){return t>=5120&&t<=5759},Khmer:function(t){return t>=6016&&t<=6143},\\\"Unified Canadian Aboriginal Syllabics Extended\\\":function(t){return t>=6320&&t<=6399},\\\"General Punctuation\\\":function(t){return t>=8192&&t<=8303},\\\"Letterlike Symbols\\\":function(t){return t>=8448&&t<=8527},\\\"Number Forms\\\":function(t){return t>=8528&&t<=8591},\\\"Miscellaneous Technical\\\":function(t){return t>=8960&&t<=9215},\\\"Control Pictures\\\":function(t){return t>=9216&&t<=9279},\\\"Optical Character Recognition\\\":function(t){return t>=9280&&t<=9311},\\\"Enclosed Alphanumerics\\\":function(t){return t>=9312&&t<=9471},\\\"Geometric Shapes\\\":function(t){return t>=9632&&t<=9727},\\\"Miscellaneous Symbols\\\":function(t){return t>=9728&&t<=9983},\\\"Miscellaneous Symbols and Arrows\\\":function(t){return t>=11008&&t<=11263},\\\"CJK Radicals Supplement\\\":function(t){return t>=11904&&t<=12031},\\\"Kangxi Radicals\\\":function(t){return t>=12032&&t<=12255},\\\"Ideographic Description Characters\\\":function(t){return t>=12272&&t<=12287},\\\"CJK Symbols and Punctuation\\\":function(t){return t>=12288&&t<=12351},Hiragana:function(t){return t>=12352&&t<=12447},Katakana:function(t){return t>=12448&&t<=12543},Bopomofo:function(t){return t>=12544&&t<=12591},\\\"Hangul Compatibility Jamo\\\":function(t){return t>=12592&&t<=12687},Kanbun:function(t){return t>=12688&&t<=12703},\\\"Bopomofo Extended\\\":function(t){return t>=12704&&t<=12735},\\\"CJK Strokes\\\":function(t){return t>=12736&&t<=12783},\\\"Katakana Phonetic Extensions\\\":function(t){return t>=12784&&t<=12799},\\\"Enclosed CJK Letters and Months\\\":function(t){return t>=12800&&t<=13055},\\\"CJK Compatibility\\\":function(t){return t>=13056&&t<=13311},\\\"CJK Unified Ideographs Extension A\\\":function(t){return t>=13312&&t<=19903},\\\"Yijing Hexagram Symbols\\\":function(t){return t>=19904&&t<=19967},\\\"CJK Unified Ideographs\\\":function(t){return t>=19968&&t<=40959},\\\"Yi Syllables\\\":function(t){return t>=40960&&t<=42127},\\\"Yi Radicals\\\":function(t){return t>=42128&&t<=42191},\\\"Hangul Jamo Extended-A\\\":function(t){return t>=43360&&t<=43391},\\\"Hangul Syllables\\\":function(t){return t>=44032&&t<=55215},\\\"Hangul Jamo Extended-B\\\":function(t){return t>=55216&&t<=55295},\\\"Private Use Area\\\":function(t){return t>=57344&&t<=63743},\\\"CJK Compatibility Ideographs\\\":function(t){return t>=63744&&t<=64255},\\\"Arabic Presentation Forms-A\\\":function(t){return t>=64336&&t<=65023},\\\"Vertical Forms\\\":function(t){return t>=65040&&t<=65055},\\\"CJK Compatibility Forms\\\":function(t){return t>=65072&&t<=65103},\\\"Small Form Variants\\\":function(t){return t>=65104&&t<=65135},\\\"Arabic Presentation Forms-B\\\":function(t){return t>=65136&&t<=65279},\\\"Halfwidth and Fullwidth Forms\\\":function(t){return t>=65280&&t<=65519}};function xr(t){for(var e=0,r=t;e<r.length;e+=1)if(_r(r[e].charCodeAt(0)))return!0;return!1}function br(t){return!(yr.Arabic(t)||yr[\\\"Arabic Supplement\\\"](t)||yr[\\\"Arabic Extended-A\\\"](t)||yr[\\\"Arabic Presentation Forms-A\\\"](t)||yr[\\\"Arabic Presentation Forms-B\\\"](t))}function _r(t){return!!(746===t||747===t||!(t<4352)&&(yr[\\\"Bopomofo Extended\\\"](t)||yr.Bopomofo(t)||yr[\\\"CJK Compatibility Forms\\\"](t)&&!(t>=65097&&t<=65103)||yr[\\\"CJK Compatibility Ideographs\\\"](t)||yr[\\\"CJK Compatibility\\\"](t)||yr[\\\"CJK Radicals Supplement\\\"](t)||yr[\\\"CJK Strokes\\\"](t)||!(!yr[\\\"CJK Symbols and Punctuation\\\"](t)||t>=12296&&t<=12305||t>=12308&&t<=12319||12336===t)||yr[\\\"CJK Unified Ideographs Extension A\\\"](t)||yr[\\\"CJK Unified Ideographs\\\"](t)||yr[\\\"Enclosed CJK Letters and Months\\\"](t)||yr[\\\"Hangul Compatibility Jamo\\\"](t)||yr[\\\"Hangul Jamo Extended-A\\\"](t)||yr[\\\"Hangul Jamo Extended-B\\\"](t)||yr[\\\"Hangul Jamo\\\"](t)||yr[\\\"Hangul Syllables\\\"](t)||yr.Hiragana(t)||yr[\\\"Ideographic Description Characters\\\"](t)||yr.Kanbun(t)||yr[\\\"Kangxi Radicals\\\"](t)||yr[\\\"Katakana Phonetic Extensions\\\"](t)||yr.Katakana(t)&&12540!==t||!(!yr[\\\"Halfwidth and Fullwidth Forms\\\"](t)||65288===t||65289===t||65293===t||t>=65306&&t<=65310||65339===t||65341===t||65343===t||t>=65371&&t<=65503||65507===t||t>=65512&&t<=65519)||!(!yr[\\\"Small Form Variants\\\"](t)||t>=65112&&t<=65118||t>=65123&&t<=65126)||yr[\\\"Unified Canadian Aboriginal Syllabics\\\"](t)||yr[\\\"Unified Canadian Aboriginal Syllabics Extended\\\"](t)||yr[\\\"Vertical Forms\\\"](t)||yr[\\\"Yijing Hexagram Symbols\\\"](t)||yr[\\\"Yi Syllables\\\"](t)||yr[\\\"Yi Radicals\\\"](t)))}function wr(t){return!(_r(t)||function(t){return!!(yr[\\\"Latin-1 Supplement\\\"](t)&&(167===t||169===t||174===t||177===t||188===t||189===t||190===t||215===t||247===t)||yr[\\\"General Punctuation\\\"](t)&&(8214===t||8224===t||8225===t||8240===t||8241===t||8251===t||8252===t||8258===t||8263===t||8264===t||8265===t||8273===t)||yr[\\\"Letterlike Symbols\\\"](t)||yr[\\\"Number Forms\\\"](t)||yr[\\\"Miscellaneous Technical\\\"](t)&&(t>=8960&&t<=8967||t>=8972&&t<=8991||t>=8996&&t<=9e3||9003===t||t>=9085&&t<=9114||t>=9150&&t<=9165||9167===t||t>=9169&&t<=9179||t>=9186&&t<=9215)||yr[\\\"Control Pictures\\\"](t)&&9251!==t||yr[\\\"Optical Character Recognition\\\"](t)||yr[\\\"Enclosed Alphanumerics\\\"](t)||yr[\\\"Geometric Shapes\\\"](t)||yr[\\\"Miscellaneous Symbols\\\"](t)&&!(t>=9754&&t<=9759)||yr[\\\"Miscellaneous Symbols and Arrows\\\"](t)&&(t>=11026&&t<=11055||t>=11088&&t<=11097||t>=11192&&t<=11243)||yr[\\\"CJK Symbols and Punctuation\\\"](t)||yr.Katakana(t)||yr[\\\"Private Use Area\\\"](t)||yr[\\\"CJK Compatibility Forms\\\"](t)||yr[\\\"Small Form Variants\\\"](t)||yr[\\\"Halfwidth and Fullwidth Forms\\\"](t)||8734===t||8756===t||8757===t||t>=9984&&t<=10087||t>=10102&&t<=10131||65532===t||65533===t)}(t))}function kr(t,e){return!(!e&&(t>=1424&&t<=2303||yr[\\\"Arabic Presentation Forms-A\\\"](t)||yr[\\\"Arabic Presentation Forms-B\\\"](t))||t>=2304&&t<=3583||t>=3840&&t<=4255||yr.Khmer(t))}var Tr,Ar=!1,Mr=null,Sr=!1,Er=new O,Cr={applyArabicShaping:null,processBidirectionalText:null,isLoaded:function(){return Sr||null!=Cr.applyArabicShaping}},Lr=function(t,e){this.zoom=t,e?(this.now=e.now,this.fadeDuration=e.fadeDuration,this.zoomHistory=e.zoomHistory,this.transition=e.transition):(this.now=0,this.fadeDuration=0,this.zoomHistory=new mr,this.transition={})};Lr.prototype.isSupportedScript=function(t){return function(t,e){for(var r=0,n=t;r<n.length;r+=1)if(!kr(n[r].charCodeAt(0),e))return!1;return!0}(t,Cr.isLoaded())},Lr.prototype.crossFadingFactor=function(){return 0===this.fadeDuration?1:Math.min((this.now-this.zoomHistory.lastIntegerZoomTime)/this.fadeDuration,1)};var zr=function(t,e){this.property=t,this.value=e,this.expression=Se(void 0===e?t.specification.default:e,t.specification)};zr.prototype.isDataDriven=function(){return\\\"source\\\"===this.expression.kind||\\\"composite\\\"===this.expression.kind},zr.prototype.possiblyEvaluate=function(t){return this.property.possiblyEvaluate(this,t)};var Or=function(t){this.property=t,this.value=new zr(t,void 0)};Or.prototype.transitioned=function(t,e){return new Dr(this.property,this.value,e,p({},t.transition,this.transition),t.now)},Or.prototype.untransitioned=function(){return new Dr(this.property,this.value,null,{},0)};var Ir=function(t){this._properties=t,this._values=Object.create(t.defaultTransitionablePropertyValues)};Ir.prototype.getValue=function(t){return x(this._values[t].value.value)},Ir.prototype.setValue=function(t,e){this._values.hasOwnProperty(t)||(this._values[t]=new Or(this._values[t].property)),this._values[t].value=new zr(this._values[t].property,null===e?void 0:x(e))},Ir.prototype.getTransition=function(t){return x(this._values[t].transition)},Ir.prototype.setTransition=function(t,e){this._values.hasOwnProperty(t)||(this._values[t]=new Or(this._values[t].property)),this._values[t].transition=x(e)||void 0},Ir.prototype.serialize=function(){for(var t={},e=0,r=Object.keys(this._values);e<r.length;e+=1){var n=r[e],i=this.getValue(n);void 0!==i&&(t[n]=i);var a=this.getTransition(n);void 0!==a&&(t[n+\\\"-transition\\\"]=a)}return t},Ir.prototype.transitioned=function(t,e){for(var r=new Pr(this._properties),n=0,i=Object.keys(this._values);n<i.length;n+=1){var a=i[n];r._values[a]=this._values[a].transitioned(t,e._values[a])}return r},Ir.prototype.untransitioned=function(){for(var t=new Pr(this._properties),e=0,r=Object.keys(this._values);e<r.length;e+=1){var n=r[e];t._values[n]=this._values[n].untransitioned()}return t};var Dr=function(t,e,r,n,i){this.property=t,this.value=e,this.begin=i+n.delay||0,this.end=this.begin+n.duration||0,t.specification.transition&&(n.delay||n.duration)&&(this.prior=r)};Dr.prototype.possiblyEvaluate=function(t){var e=t.now||0,r=this.value.possiblyEvaluate(t),n=this.prior;if(n){if(e>this.end)return this.prior=null,r;if(this.value.isDataDriven())return this.prior=null,r;if(e<this.begin)return n.possiblyEvaluate(t);var i=(e-this.begin)/(this.end-this.begin);return this.property.interpolate(n.possiblyEvaluate(t),r,function(t){if(i<=0)return 0;if(i>=1)return 1;var e=i*i,r=e*i;return 4*(i<.5?r:3*(i-e)+r-.75)}())}return r};var Pr=function(t){this._properties=t,this._values=Object.create(t.defaultTransitioningPropertyValues)};Pr.prototype.possiblyEvaluate=function(t){for(var e=new Br(this._properties),r=0,n=Object.keys(this._values);r<n.length;r+=1){var i=n[r];e._values[i]=this._values[i].possiblyEvaluate(t)}return e},Pr.prototype.hasTransition=function(){for(var t=0,e=Object.keys(this._values);t<e.length;t+=1){var r=e[t];if(this._values[r].prior)return!0}return!1};var Rr=function(t){this._properties=t,this._values=Object.create(t.defaultPropertyValues)};Rr.prototype.getValue=function(t){return x(this._values[t].value)},Rr.prototype.setValue=function(t,e){this._values[t]=new zr(this._values[t].property,null===e?void 0:x(e))},Rr.prototype.serialize=function(){for(var t={},e=0,r=Object.keys(this._values);e<r.length;e+=1){var n=r[e],i=this.getValue(n);void 0!==i&&(t[n]=i)}return t},Rr.prototype.possiblyEvaluate=function(t){for(var e=new Br(this._properties),r=0,n=Object.keys(this._values);r<n.length;r+=1){var i=n[r];e._values[i]=this._values[i].possiblyEvaluate(t)}return e};var Fr=function(t,e,r){this.property=t,this.value=e,this.globals=r};Fr.prototype.isConstant=function(){return\\\"constant\\\"===this.value.kind},Fr.prototype.constantOr=function(t){return\\\"constant\\\"===this.value.kind?this.value.value:t},Fr.prototype.evaluate=function(t){return this.property.evaluate(this.value,this.globals,t)};var Br=function(t){this._properties=t,this._values=Object.create(t.defaultPossiblyEvaluatedValues)};Br.prototype.get=function(t){return this._values[t]};var Nr=function(t){this.specification=t};Nr.prototype.possiblyEvaluate=function(t,e){return t.expression.evaluate(e)},Nr.prototype.interpolate=function(t,e,r){var n=kt[this.specification.type];return n?n(t,e,r):t};var jr=function(t){this.specification=t};jr.prototype.possiblyEvaluate=function(t,e){return\\\"constant\\\"===t.expression.kind||\\\"camera\\\"===t.expression.kind?new Fr(this,{kind:\\\"constant\\\",value:t.expression.evaluate(e)},e):new Fr(this,t.expression,e)},jr.prototype.interpolate=function(t,e,r){if(\\\"constant\\\"!==t.value.kind||\\\"constant\\\"!==e.value.kind)return t;if(void 0===t.value.value||void 0===e.value.value)return new Fr(this,{kind:\\\"constant\\\",value:void 0},t.globals);var n=kt[this.specification.type];return n?new Fr(this,{kind:\\\"constant\\\",value:n(t.value.value,e.value.value,r)},t.globals):t},jr.prototype.evaluate=function(t,e,r){return\\\"constant\\\"===t.kind?t.value:t.evaluate(e,r)};var Vr=function(t){this.specification=t};Vr.prototype.possiblyEvaluate=function(t,e){if(void 0!==t.value){if(\\\"constant\\\"===t.expression.kind){var r=t.expression.evaluate(e);return this._calculate(r,r,r,e)}return this._calculate(t.expression.evaluate(new Lr(Math.floor(e.zoom-1),e)),t.expression.evaluate(new Lr(Math.floor(e.zoom),e)),t.expression.evaluate(new Lr(Math.floor(e.zoom+1),e)),e)}},Vr.prototype._calculate=function(t,e,r,n){var i=n.zoom,a=i-Math.floor(i),o=n.crossFadingFactor();return i>n.zoomHistory.lastIntegerZoom?{from:t,to:e,fromScale:2,toScale:1,t:a+(1-a)*o}:{from:r,to:e,fromScale:.5,toScale:1,t:1-(1-o)*a}},Vr.prototype.interpolate=function(t){return t};var Ur=function(t){this.specification=t};Ur.prototype.possiblyEvaluate=function(t,e){return!!t.expression.evaluate(e)},Ur.prototype.interpolate=function(){return!1};var Hr=function(t){for(var e in this.properties=t,this.defaultPropertyValues={},this.defaultTransitionablePropertyValues={},this.defaultTransitioningPropertyValues={},this.defaultPossiblyEvaluatedValues={},t){var r=t[e],n=this.defaultPropertyValues[e]=new zr(r,void 0),i=this.defaultTransitionablePropertyValues[e]=new Or(r);this.defaultTransitioningPropertyValues[e]=i.untransitioned(),this.defaultPossiblyEvaluatedValues[e]=n.possiblyEvaluate({})}};pr(\\\"DataDrivenProperty\\\",jr),pr(\\\"DataConstantProperty\\\",Nr),pr(\\\"CrossFadedProperty\\\",Vr),pr(\\\"ColorRampProperty\\\",Ur);var qr=function(t){function e(e,r){for(var n in t.call(this),this.id=e.id,this.metadata=e.metadata,this.type=e.type,this.minzoom=e.minzoom,this.maxzoom=e.maxzoom,this.visibility=\\\"visible\\\",\\\"background\\\"!==e.type&&(this.source=e.source,this.sourceLayer=e[\\\"source-layer\\\"],this.filter=e.filter),this._featureFilter=function(){return!0},r.layout&&(this._unevaluatedLayout=new Rr(r.layout)),this._transitionablePaint=new Ir(r.paint),e.paint)this.setPaintProperty(n,e.paint[n],{validate:!1});for(var i in e.layout)this.setLayoutProperty(i,e.layout[i],{validate:!1});this._transitioningPaint=this._transitionablePaint.untransitioned()}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.getLayoutProperty=function(t){return\\\"visibility\\\"===t?this.visibility:this._unevaluatedLayout.getValue(t)},e.prototype.setLayoutProperty=function(t,e,r){if(null!=e){var n=\\\"layers.\\\"+this.id+\\\".layout.\\\"+t;if(this._validate(or,n,t,e,r))return}\\\"visibility\\\"!==t?this._unevaluatedLayout.setValue(t,e):this.visibility=\\\"none\\\"===e?e:\\\"visible\\\"},e.prototype.getPaintProperty=function(t){return v(t,\\\"-transition\\\")?this._transitionablePaint.getTransition(t.slice(0,-\\\"-transition\\\".length)):this._transitionablePaint.getValue(t)},e.prototype.setPaintProperty=function(t,e,r){if(null!=e){var n=\\\"layers.\\\"+this.id+\\\".paint.\\\"+t;if(this._validate(ar,n,t,e,r))return}v(t,\\\"-transition\\\")?this._transitionablePaint.setTransition(t.slice(0,-\\\"-transition\\\".length),e||void 0):this._transitionablePaint.setValue(t,e)},e.prototype.isHidden=function(t){return!!(this.minzoom&&t<this.minzoom)||!!(this.maxzoom&&t>=this.maxzoom)||\\\"none\\\"===this.visibility},e.prototype.updateTransitions=function(t){this._transitioningPaint=this._transitionablePaint.transitioned(t,this._transitioningPaint)},e.prototype.hasTransition=function(){return this._transitioningPaint.hasTransition()},e.prototype.recalculate=function(t){this._unevaluatedLayout&&(this.layout=this._unevaluatedLayout.possiblyEvaluate(t)),this.paint=this._transitioningPaint.possiblyEvaluate(t)},e.prototype.serialize=function(){var t={id:this.id,type:this.type,source:this.source,\\\"source-layer\\\":this.sourceLayer,metadata:this.metadata,minzoom:this.minzoom,maxzoom:this.maxzoom,filter:this.filter,layout:this._unevaluatedLayout&&this._unevaluatedLayout.serialize(),paint:this._transitionablePaint&&this._transitionablePaint.serialize()};return\\\"none\\\"===this.visibility&&(t.layout=t.layout||{},t.layout.visibility=\\\"none\\\"),y(t,function(t,e){return!(void 0===t||\\\"layout\\\"===e&&!Object.keys(t).length||\\\"paint\\\"===e&&!Object.keys(t).length)})},e.prototype._validate=function(t,e,r,n,i){return(!i||!1!==i.validate)&&sr(this,t.call(nr,{key:e,layerType:this.type,objectKey:r,value:n,styleSpec:I,style:{glyphs:!0,sprite:!0}}))},e.prototype.hasOffscreenPass=function(){return!1},e.prototype.resize=function(){},e}(O),Gr={Int8:Int8Array,Uint8:Uint8Array,Int16:Int16Array,Uint16:Uint16Array,Int32:Int32Array,Uint32:Uint32Array,Float32:Float32Array},Yr=function(t,e){this._structArray=t,this._pos1=e*this.size,this._pos2=this._pos1/2,this._pos4=this._pos1/4,this._pos8=this._pos1/8},Wr=function(){this.isTransferred=!1,this.capacity=-1,this.resize(0)};function Xr(t,e){void 0===e&&(e=1);var r=0,n=0;return{members:t.map(function(t){var i,a=(i=t.type,Gr[i].BYTES_PER_ELEMENT),o=r=Zr(r,Math.max(e,a)),s=t.components||1;return n=Math.max(n,a),r+=a*s,{name:t.name,type:t.type,components:s,offset:o}}),size:Zr(r,Math.max(n,e)),alignment:e}}function Zr(t,e){return Math.ceil(t/e)*e}Wr.serialize=function(t,e){return t._trim(),e&&(t.isTransferred=!0,e.push(t.arrayBuffer)),{length:t.length,arrayBuffer:t.arrayBuffer}},Wr.deserialize=function(t){var e=Object.create(this.prototype);return e.arrayBuffer=t.arrayBuffer,e.length=t.length,e.capacity=t.arrayBuffer.byteLength/e.bytesPerElement,e._refreshViews(),e},Wr.prototype._trim=function(){this.length!==this.capacity&&(this.capacity=this.length,this.arrayBuffer=this.arrayBuffer.slice(0,this.length*this.bytesPerElement),this._refreshViews())},Wr.prototype.clear=function(){this.length=0},Wr.prototype.resize=function(t){this.reserve(t),this.length=t},Wr.prototype.reserve=function(t){if(t>this.capacity){this.capacity=Math.max(t,Math.floor(5*this.capacity),128),this.arrayBuffer=new ArrayBuffer(this.capacity*this.bytesPerElement);var e=this.uint8;this._refreshViews(),e&&this.uint8.set(e)}},Wr.prototype._refreshViews=function(){throw new Error(\\\"_refreshViews() must be implemented by each concrete StructArray layout\\\")};var $r=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.int16=new Int16Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t,e){var r=this.length;this.resize(r+1);var n=2*r;return this.int16[n+0]=t,this.int16[n+1]=e,r},e}(Wr);$r.prototype.bytesPerElement=4,pr(\\\"StructArrayLayout2i4\\\",$r);var Jr=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.int16=new Int16Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t,e,r,n){var i=this.length;this.resize(i+1);var a=4*i;return this.int16[a+0]=t,this.int16[a+1]=e,this.int16[a+2]=r,this.int16[a+3]=n,i},e}(Wr);Jr.prototype.bytesPerElement=8,pr(\\\"StructArrayLayout4i8\\\",Jr);var Kr=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.int16=new Int16Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t,e,r,n,i,a){var o=this.length;this.resize(o+1);var s=6*o;return this.int16[s+0]=t,this.int16[s+1]=e,this.int16[s+2]=r,this.int16[s+3]=n,this.int16[s+4]=i,this.int16[s+5]=a,o},e}(Wr);Kr.prototype.bytesPerElement=12,pr(\\\"StructArrayLayout2i4i12\\\",Kr);var Qr=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.int16=new Int16Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t,e,r,n,i,a,o,s){var l=this.length;this.resize(l+1);var c=6*l,u=12*l;return this.int16[c+0]=t,this.int16[c+1]=e,this.int16[c+2]=r,this.int16[c+3]=n,this.uint8[u+8]=i,this.uint8[u+9]=a,this.uint8[u+10]=o,this.uint8[u+11]=s,l},e}(Wr);Qr.prototype.bytesPerElement=12,pr(\\\"StructArrayLayout4i4ub12\\\",Qr);var tn=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.int16=new Int16Array(this.arrayBuffer),this.uint16=new Uint16Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t,e,r,n,i,a,o,s){var l=this.length;this.resize(l+1);var c=8*l;return this.int16[c+0]=t,this.int16[c+1]=e,this.int16[c+2]=r,this.int16[c+3]=n,this.uint16[c+4]=i,this.uint16[c+5]=a,this.uint16[c+6]=o,this.uint16[c+7]=s,l},e}(Wr);tn.prototype.bytesPerElement=16,pr(\\\"StructArrayLayout4i4ui16\\\",tn);var en=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.float32=new Float32Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t,e,r){var n=this.length;this.resize(n+1);var i=3*n;return this.float32[i+0]=t,this.float32[i+1]=e,this.float32[i+2]=r,n},e}(Wr);en.prototype.bytesPerElement=12,pr(\\\"StructArrayLayout3f12\\\",en);var rn=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.uint32=new Uint32Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t){var e=this.length;this.resize(e+1);var r=1*e;return this.uint32[r+0]=t,e},e}(Wr);rn.prototype.bytesPerElement=4,pr(\\\"StructArrayLayout1ul4\\\",rn);var nn=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.int16=new Int16Array(this.arrayBuffer),this.uint32=new Uint32Array(this.arrayBuffer),this.uint16=new Uint16Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t,e,r,n,i,a,o,s,l,c,u){var f=this.length;this.resize(f+1);var h=12*f,p=6*f;return this.int16[h+0]=t,this.int16[h+1]=e,this.int16[h+2]=r,this.int16[h+3]=n,this.int16[h+4]=i,this.int16[h+5]=a,this.uint32[p+3]=o,this.uint16[h+8]=s,this.uint16[h+9]=l,this.int16[h+10]=c,this.int16[h+11]=u,f},e}(Wr);nn.prototype.bytesPerElement=24,pr(\\\"StructArrayLayout6i1ul2ui2i24\\\",nn);var an=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.int16=new Int16Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t,e,r,n,i,a){var o=this.length;this.resize(o+1);var s=6*o;return this.int16[s+0]=t,this.int16[s+1]=e,this.int16[s+2]=r,this.int16[s+3]=n,this.int16[s+4]=i,this.int16[s+5]=a,o},e}(Wr);an.prototype.bytesPerElement=12,pr(\\\"StructArrayLayout2i2i2i12\\\",an);var on=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t,e){var r=this.length;this.resize(r+1);var n=4*r;return this.uint8[n+0]=t,this.uint8[n+1]=e,r},e}(Wr);on.prototype.bytesPerElement=4,pr(\\\"StructArrayLayout2ub4\\\",on);var sn=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.int16=new Int16Array(this.arrayBuffer),this.uint16=new Uint16Array(this.arrayBuffer),this.uint32=new Uint32Array(this.arrayBuffer),this.float32=new Float32Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t,e,r,n,i,a,o,s,l,c,u,f,h,p){var d=this.length;this.resize(d+1);var g=20*d,v=10*d,m=40*d;return this.int16[g+0]=t,this.int16[g+1]=e,this.uint16[g+2]=r,this.uint16[g+3]=n,this.uint32[v+2]=i,this.uint32[v+3]=a,this.uint32[v+4]=o,this.uint16[g+10]=s,this.uint16[g+11]=l,this.uint16[g+12]=c,this.float32[v+7]=u,this.float32[v+8]=f,this.uint8[m+36]=h,this.uint8[m+37]=p,d},e}(Wr);sn.prototype.bytesPerElement=40,pr(\\\"StructArrayLayout2i2ui3ul3ui2f2ub40\\\",sn);var ln=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.float32=new Float32Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t){var e=this.length;this.resize(e+1);var r=1*e;return this.float32[r+0]=t,e},e}(Wr);ln.prototype.bytesPerElement=4,pr(\\\"StructArrayLayout1f4\\\",ln);var cn=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.int16=new Int16Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t,e,r){var n=this.length;this.resize(n+1);var i=3*n;return this.int16[i+0]=t,this.int16[i+1]=e,this.int16[i+2]=r,n},e}(Wr);cn.prototype.bytesPerElement=6,pr(\\\"StructArrayLayout3i6\\\",cn);var un=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.uint32=new Uint32Array(this.arrayBuffer),this.uint16=new Uint16Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t,e,r){var n=this.length;this.resize(n+1);var i=2*n,a=4*n;return this.uint32[i+0]=t,this.uint16[a+2]=e,this.uint16[a+3]=r,n},e}(Wr);un.prototype.bytesPerElement=8,pr(\\\"StructArrayLayout1ul2ui8\\\",un);var fn=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.uint16=new Uint16Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t,e,r){var n=this.length;this.resize(n+1);var i=3*n;return this.uint16[i+0]=t,this.uint16[i+1]=e,this.uint16[i+2]=r,n},e}(Wr);fn.prototype.bytesPerElement=6,pr(\\\"StructArrayLayout3ui6\\\",fn);var hn=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.uint16=new Uint16Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t,e){var r=this.length;this.resize(r+1);var n=2*r;return this.uint16[n+0]=t,this.uint16[n+1]=e,r},e}(Wr);hn.prototype.bytesPerElement=4,pr(\\\"StructArrayLayout2ui4\\\",hn);var pn=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.float32=new Float32Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t,e){var r=this.length;this.resize(r+1);var n=2*r;return this.float32[n+0]=t,this.float32[n+1]=e,r},e}(Wr);pn.prototype.bytesPerElement=8,pr(\\\"StructArrayLayout2f8\\\",pn);var dn=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype._refreshViews=function(){this.uint8=new Uint8Array(this.arrayBuffer),this.float32=new Float32Array(this.arrayBuffer)},e.prototype.emplaceBack=function(t,e,r,n){var i=this.length;this.resize(i+1);var a=4*i;return this.float32[a+0]=t,this.float32[a+1]=e,this.float32[a+2]=r,this.float32[a+3]=n,i},e}(Wr);dn.prototype.bytesPerElement=16,pr(\\\"StructArrayLayout4f16\\\",dn);var gn=function(t){function e(){t.apply(this,arguments)}t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e;var r={anchorPointX:{configurable:!0},anchorPointY:{configurable:!0},x1:{configurable:!0},y1:{configurable:!0},x2:{configurable:!0},y2:{configurable:!0},featureIndex:{configurable:!0},sourceLayerIndex:{configurable:!0},bucketIndex:{configurable:!0},radius:{configurable:!0},signedDistanceFromAnchor:{configurable:!0},anchorPoint:{configurable:!0}};return r.anchorPointX.get=function(){return this._structArray.int16[this._pos2+0]},r.anchorPointX.set=function(t){this._structArray.int16[this._pos2+0]=t},r.anchorPointY.get=function(){return this._structArray.int16[this._pos2+1]},r.anchorPointY.set=function(t){this._structArray.int16[this._pos2+1]=t},r.x1.get=function(){return this._structArray.int16[this._pos2+2]},r.x1.set=function(t){this._structArray.int16[this._pos2+2]=t},r.y1.get=function(){return this._structArray.int16[this._pos2+3]},r.y1.set=function(t){this._structArray.int16[this._pos2+3]=t},r.x2.get=function(){return this._structArray.int16[this._pos2+4]},r.x2.set=function(t){this._structArray.int16[this._pos2+4]=t},r.y2.get=function(){return this._structArray.int16[this._pos2+5]},r.y2.set=function(t){this._structArray.int16[this._pos2+5]=t},r.featureIndex.get=function(){return this._structArray.uint32[this._pos4+3]},r.featureIndex.set=function(t){this._structArray.uint32[this._pos4+3]=t},r.sourceLayerIndex.get=function(){return this._structArray.uint16[this._pos2+8]},r.sourceLayerIndex.set=function(t){this._structArray.uint16[this._pos2+8]=t},r.bucketIndex.get=function(){return this._structArray.uint16[this._pos2+9]},r.bucketIndex.set=function(t){this._structArray.uint16[this._pos2+9]=t},r.radius.get=function(){return this._structArray.int16[this._pos2+10]},r.radius.set=function(t){this._structArray.int16[this._pos2+10]=t},r.signedDistanceFromAnchor.get=function(){return this._structArray.int16[this._pos2+11]},r.signedDistanceFromAnchor.set=function(t){this._structArray.int16[this._pos2+11]=t},r.anchorPoint.get=function(){return new l(this.anchorPointX,this.anchorPointY)},Object.defineProperties(e.prototype,r),e}(Yr);gn.prototype.size=24;var vn=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.get=function(t){return new gn(this,t)},e}(nn);pr(\\\"CollisionBoxArray\\\",vn);var mn=function(t){function e(){t.apply(this,arguments)}t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e;var r={anchorX:{configurable:!0},anchorY:{configurable:!0},glyphStartIndex:{configurable:!0},numGlyphs:{configurable:!0},vertexStartIndex:{configurable:!0},lineStartIndex:{configurable:!0},lineLength:{configurable:!0},segment:{configurable:!0},lowerSize:{configurable:!0},upperSize:{configurable:!0},lineOffsetX:{configurable:!0},lineOffsetY:{configurable:!0},writingMode:{configurable:!0},hidden:{configurable:!0}};return r.anchorX.get=function(){return this._structArray.int16[this._pos2+0]},r.anchorX.set=function(t){this._structArray.int16[this._pos2+0]=t},r.anchorY.get=function(){return this._structArray.int16[this._pos2+1]},r.anchorY.set=function(t){this._structArray.int16[this._pos2+1]=t},r.glyphStartIndex.get=function(){return this._structArray.uint16[this._pos2+2]},r.glyphStartIndex.set=function(t){this._structArray.uint16[this._pos2+2]=t},r.numGlyphs.get=function(){return this._structArray.uint16[this._pos2+3]},r.numGlyphs.set=function(t){this._structArray.uint16[this._pos2+3]=t},r.vertexStartIndex.get=function(){return this._structArray.uint32[this._pos4+2]},r.vertexStartIndex.set=function(t){this._structArray.uint32[this._pos4+2]=t},r.lineStartIndex.get=function(){return this._structArray.uint32[this._pos4+3]},r.lineStartIndex.set=function(t){this._structArray.uint32[this._pos4+3]=t},r.lineLength.get=function(){return this._structArray.uint32[this._pos4+4]},r.lineLength.set=function(t){this._structArray.uint32[this._pos4+4]=t},r.segment.get=function(){return this._structArray.uint16[this._pos2+10]},r.segment.set=function(t){this._structArray.uint16[this._pos2+10]=t},r.lowerSize.get=function(){return this._structArray.uint16[this._pos2+11]},r.lowerSize.set=function(t){this._structArray.uint16[this._pos2+11]=t},r.upperSize.get=function(){return this._structArray.uint16[this._pos2+12]},r.upperSize.set=function(t){this._structArray.uint16[this._pos2+12]=t},r.lineOffsetX.get=function(){return this._structArray.float32[this._pos4+7]},r.lineOffsetX.set=function(t){this._structArray.float32[this._pos4+7]=t},r.lineOffsetY.get=function(){return this._structArray.float32[this._pos4+8]},r.lineOffsetY.set=function(t){this._structArray.float32[this._pos4+8]=t},r.writingMode.get=function(){return this._structArray.uint8[this._pos1+36]},r.writingMode.set=function(t){this._structArray.uint8[this._pos1+36]=t},r.hidden.get=function(){return this._structArray.uint8[this._pos1+37]},r.hidden.set=function(t){this._structArray.uint8[this._pos1+37]=t},Object.defineProperties(e.prototype,r),e}(Yr);mn.prototype.size=40;var yn=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.get=function(t){return new mn(this,t)},e}(sn);pr(\\\"PlacedSymbolArray\\\",yn);var xn=function(t){function e(){t.apply(this,arguments)}t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e;var r={offsetX:{configurable:!0}};return r.offsetX.get=function(){return this._structArray.float32[this._pos4+0]},r.offsetX.set=function(t){this._structArray.float32[this._pos4+0]=t},Object.defineProperties(e.prototype,r),e}(Yr);xn.prototype.size=4;var bn=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.getoffsetX=function(t){return this.float32[1*t+0]},e.prototype.get=function(t){return new xn(this,t)},e}(ln);pr(\\\"GlyphOffsetArray\\\",bn);var _n=function(t){function e(){t.apply(this,arguments)}t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e;var r={x:{configurable:!0},y:{configurable:!0},tileUnitDistanceFromAnchor:{configurable:!0}};return r.x.get=function(){return this._structArray.int16[this._pos2+0]},r.x.set=function(t){this._structArray.int16[this._pos2+0]=t},r.y.get=function(){return this._structArray.int16[this._pos2+1]},r.y.set=function(t){this._structArray.int16[this._pos2+1]=t},r.tileUnitDistanceFromAnchor.get=function(){return this._structArray.int16[this._pos2+2]},r.tileUnitDistanceFromAnchor.set=function(t){this._structArray.int16[this._pos2+2]=t},Object.defineProperties(e.prototype,r),e}(Yr);_n.prototype.size=6;var wn=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.getx=function(t){return this.int16[3*t+0]},e.prototype.gety=function(t){return this.int16[3*t+1]},e.prototype.gettileUnitDistanceFromAnchor=function(t){return this.int16[3*t+2]},e.prototype.get=function(t){return new _n(this,t)},e}(cn);pr(\\\"SymbolLineVertexArray\\\",wn);var kn=function(t){function e(){t.apply(this,arguments)}t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e;var r={featureIndex:{configurable:!0},sourceLayerIndex:{configurable:!0},bucketIndex:{configurable:!0}};return r.featureIndex.get=function(){return this._structArray.uint32[this._pos4+0]},r.featureIndex.set=function(t){this._structArray.uint32[this._pos4+0]=t},r.sourceLayerIndex.get=function(){return this._structArray.uint16[this._pos2+2]},r.sourceLayerIndex.set=function(t){this._structArray.uint16[this._pos2+2]=t},r.bucketIndex.get=function(){return this._structArray.uint16[this._pos2+3]},r.bucketIndex.set=function(t){this._structArray.uint16[this._pos2+3]=t},Object.defineProperties(e.prototype,r),e}(Yr);kn.prototype.size=8;var Tn=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.get=function(t){return new kn(this,t)},e}(un);pr(\\\"FeatureIndexArray\\\",Tn);var An=Xr([{name:\\\"a_pos\\\",components:2,type:\\\"Int16\\\"}],4).members,Mn=function(t){void 0===t&&(t=[]),this.segments=t};Mn.prototype.prepareSegment=function(t,e,r){var n=this.segments[this.segments.length-1];return t>Mn.MAX_VERTEX_ARRAY_LENGTH&&_(\\\"Max vertices per segment is \\\"+Mn.MAX_VERTEX_ARRAY_LENGTH+\\\": bucket requested \\\"+t),(!n||n.vertexLength+t>Mn.MAX_VERTEX_ARRAY_LENGTH)&&(n={vertexOffset:e.length,primitiveOffset:r.length,vertexLength:0,primitiveLength:0},this.segments.push(n)),n},Mn.prototype.get=function(){return this.segments},Mn.prototype.destroy=function(){for(var t=0,e=this.segments;t<e.length;t+=1){var r=e[t];for(var n in r.vaos)r.vaos[n].destroy()}},Mn.MAX_VERTEX_ARRAY_LENGTH=Math.pow(2,16)-1,pr(\\\"SegmentVector\\\",Mn);var Sn=function(t,e){return 256*(t=h(Math.floor(t),0,255))+h(Math.floor(e),0,255)};function En(t){return[Sn(255*t.r,255*t.g),Sn(255*t.b,255*t.a)]}var Cn=function(t,e,r){this.value=t,this.name=e,this.type=r,this.statistics={max:-1/0}};Cn.prototype.defines=function(){return[\\\"#define HAS_UNIFORM_u_\\\"+this.name]},Cn.prototype.populatePaintArray=function(){},Cn.prototype.upload=function(){},Cn.prototype.destroy=function(){},Cn.prototype.setUniforms=function(t,e,r,n){var i=n.constantOr(this.value),a=t.gl;\\\"color\\\"===this.type?a.uniform4f(e.uniforms[\\\"u_\\\"+this.name],i.r,i.g,i.b,i.a):a.uniform1f(e.uniforms[\\\"u_\\\"+this.name],i)};var Ln=function(t,e,r){this.expression=t,this.name=e,this.type=r,this.statistics={max:-1/0};var n=\\\"color\\\"===r?pn:ln;this.paintVertexAttributes=[{name:\\\"a_\\\"+e,type:\\\"Float32\\\",components:\\\"color\\\"===r?2:1,offset:0}],this.paintVertexArray=new n};Ln.prototype.defines=function(){return[]},Ln.prototype.populatePaintArray=function(t,e){var r=this.paintVertexArray,n=r.length;r.reserve(t);var i=this.expression.evaluate(new Lr(0),e);if(\\\"color\\\"===this.type)for(var a=En(i),o=n;o<t;o++)r.emplaceBack(a[0],a[1]);else{for(var s=n;s<t;s++)r.emplaceBack(i);this.statistics.max=Math.max(this.statistics.max,i)}},Ln.prototype.upload=function(t){this.paintVertexArray&&(this.paintVertexBuffer=t.createVertexBuffer(this.paintVertexArray,this.paintVertexAttributes))},Ln.prototype.destroy=function(){this.paintVertexBuffer&&this.paintVertexBuffer.destroy()},Ln.prototype.setUniforms=function(t,e){t.gl.uniform1f(e.uniforms[\\\"a_\\\"+this.name+\\\"_t\\\"],0)};var zn=function(t,e,r,n,i){this.expression=t,this.name=e,this.type=r,this.useIntegerZoom=n,this.zoom=i,this.statistics={max:-1/0};var a=\\\"color\\\"===r?dn:pn;this.paintVertexAttributes=[{name:\\\"a_\\\"+e,type:\\\"Float32\\\",components:\\\"color\\\"===r?4:2,offset:0}],this.paintVertexArray=new a};zn.prototype.defines=function(){return[]},zn.prototype.populatePaintArray=function(t,e){var r=this.paintVertexArray,n=r.length;r.reserve(t);var i=this.expression.evaluate(new Lr(this.zoom),e),a=this.expression.evaluate(new Lr(this.zoom+1),e);if(\\\"color\\\"===this.type)for(var o=En(i),s=En(a),l=n;l<t;l++)r.emplaceBack(o[0],o[1],s[0],s[1]);else{for(var c=n;c<t;c++)r.emplaceBack(i,a);this.statistics.max=Math.max(this.statistics.max,i,a)}},zn.prototype.upload=function(t){this.paintVertexArray&&(this.paintVertexBuffer=t.createVertexBuffer(this.paintVertexArray,this.paintVertexAttributes))},zn.prototype.destroy=function(){this.paintVertexBuffer&&this.paintVertexBuffer.destroy()},zn.prototype.interpolationFactor=function(t){return this.useIntegerZoom?this.expression.interpolationFactor(Math.floor(t),this.zoom,this.zoom+1):this.expression.interpolationFactor(t,this.zoom,this.zoom+1)},zn.prototype.setUniforms=function(t,e,r){t.gl.uniform1f(e.uniforms[\\\"a_\\\"+this.name+\\\"_t\\\"],this.interpolationFactor(r.zoom))};var On=function(){this.binders={},this.cacheKey=\\\"\\\",this._buffers=[]};On.createDynamic=function(t,e,r){var n=new On,i=[];for(var a in t.paint._values)if(r(a)){var o=t.paint.get(a);if(o instanceof Fr&&o.property.specification[\\\"property-function\\\"]){var s=Dn(a,t.type),l=o.property.specification.type,c=o.property.useIntegerZoom;\\\"constant\\\"===o.value.kind?(n.binders[a]=new Cn(o.value,s,l),i.push(\\\"/u_\\\"+s)):\\\"source\\\"===o.value.kind?(n.binders[a]=new Ln(o.value,s,l),i.push(\\\"/a_\\\"+s)):(n.binders[a]=new zn(o.value,s,l,c,e),i.push(\\\"/z_\\\"+s))}}return n.cacheKey=i.sort().join(\\\"\\\"),n},On.prototype.populatePaintArrays=function(t,e){for(var r in this.binders)this.binders[r].populatePaintArray(t,e)},On.prototype.defines=function(){var t=[];for(var e in this.binders)t.push.apply(t,this.binders[e].defines());return t},On.prototype.setUniforms=function(t,e,r,n){for(var i in this.binders)this.binders[i].setUniforms(t,e,n,r.get(i))},On.prototype.getPaintVertexBuffers=function(){return this._buffers},On.prototype.upload=function(t){for(var e in this.binders)this.binders[e].upload(t);var r=[];for(var n in this.binders){var i=this.binders[n];(i instanceof Ln||i instanceof zn)&&i.paintVertexBuffer&&r.push(i.paintVertexBuffer)}this._buffers=r},On.prototype.destroy=function(){for(var t in this.binders)this.binders[t].destroy()};var In=function(t,e,r,n){void 0===n&&(n=function(){return!0}),this.programConfigurations={};for(var i=0,a=e;i<a.length;i+=1){var o=a[i];this.programConfigurations[o.id]=On.createDynamic(o,r,n),this.programConfigurations[o.id].layoutAttributes=t}};function Dn(t,e){return{\\\"text-opacity\\\":\\\"opacity\\\",\\\"icon-opacity\\\":\\\"opacity\\\",\\\"text-color\\\":\\\"fill_color\\\",\\\"icon-color\\\":\\\"fill_color\\\",\\\"text-halo-color\\\":\\\"halo_color\\\",\\\"icon-halo-color\\\":\\\"halo_color\\\",\\\"text-halo-blur\\\":\\\"halo_blur\\\",\\\"icon-halo-blur\\\":\\\"halo_blur\\\",\\\"text-halo-width\\\":\\\"halo_width\\\",\\\"icon-halo-width\\\":\\\"halo_width\\\",\\\"line-gap-width\\\":\\\"gapwidth\\\"}[t]||t.replace(e+\\\"-\\\",\\\"\\\").replace(/-/g,\\\"_\\\")}In.prototype.populatePaintArrays=function(t,e){for(var r in this.programConfigurations)this.programConfigurations[r].populatePaintArrays(t,e)},In.prototype.get=function(t){return this.programConfigurations[t]},In.prototype.upload=function(t){for(var e in this.programConfigurations)this.programConfigurations[e].upload(t)},In.prototype.destroy=function(){for(var t in this.programConfigurations)this.programConfigurations[t].destroy()},pr(\\\"ConstantBinder\\\",Cn),pr(\\\"SourceExpressionBinder\\\",Ln),pr(\\\"CompositeExpressionBinder\\\",zn),pr(\\\"ProgramConfiguration\\\",On,{omit:[\\\"_buffers\\\"]}),pr(\\\"ProgramConfigurationSet\\\",In);var Pn=8192,Rn=(16,{min:-1*Math.pow(2,15),max:Math.pow(2,15)-1});function Fn(t){for(var e=Pn/t.extent,r=t.loadGeometry(),n=0;n<r.length;n++)for(var i=r[n],a=0;a<i.length;a++){var o=i[a];o.x=Math.round(o.x*e),o.y=Math.round(o.y*e),(o.x<Rn.min||o.x>Rn.max||o.y<Rn.min||o.y>Rn.max)&&_(\\\"Geometry exceeds allowed extent, reduce your vector tile buffer size\\\")}return r}function Bn(t,e,r,n,i){t.emplaceBack(2*e+(n+1)/2,2*r+(i+1)/2)}var Nn=function(t){this.zoom=t.zoom,this.overscaling=t.overscaling,this.layers=t.layers,this.layerIds=this.layers.map(function(t){return t.id}),this.index=t.index,this.layoutVertexArray=new $r,this.indexArray=new fn,this.segments=new Mn,this.programConfigurations=new In(An,t.layers,t.zoom)};function jn(t,e,r){for(var n=0;n<t.length;n++){var i=t[n];if(Zn(i,e))return!0;if(Yn(e,i,r))return!0}return!1}function Vn(t,e){if(1===t.length&&1===t[0].length)return Xn(e,t[0][0]);for(var r=0;r<e.length;r++)for(var n=e[r],i=0;i<n.length;i++)if(Xn(t,n[i]))return!0;for(var a=0;a<t.length;a++){for(var o=t[a],s=0;s<o.length;s++)if(Xn(e,o[s]))return!0;for(var l=0;l<e.length;l++)if(qn(o,e[l]))return!0}return!1}function Un(t,e,r){for(var n=0;n<e.length;n++)for(var i=e[n],a=0;a<t.length;a++){var o=t[a];if(o.length>=3)for(var s=0;s<i.length;s++)if(Zn(o,i[s]))return!0;if(Hn(o,i,r))return!0}return!1}function Hn(t,e,r){if(t.length>1){if(qn(t,e))return!0;for(var n=0;n<e.length;n++)if(Yn(e[n],t,r))return!0}for(var i=0;i<t.length;i++)if(Yn(t[i],e,r))return!0;return!1}function qn(t,e){if(0===t.length||0===e.length)return!1;for(var r=0;r<t.length-1;r++)for(var n=t[r],i=t[r+1],a=0;a<e.length-1;a++)if(Gn(n,i,e[a],e[a+1]))return!0;return!1}function Gn(t,e,r,n){return w(t,r,n)!==w(e,r,n)&&w(t,e,r)!==w(t,e,n)}function Yn(t,e,r){var n=r*r;if(1===e.length)return t.distSqr(e[0])<n;for(var i=1;i<e.length;i++)if(Wn(t,e[i-1],e[i])<n)return!0;return!1}function Wn(t,e,r){var n=e.distSqr(r);if(0===n)return t.distSqr(e);var i=((t.x-e.x)*(r.x-e.x)+(t.y-e.y)*(r.y-e.y))/n;return i<0?t.distSqr(e):i>1?t.distSqr(r):t.distSqr(r.sub(e)._mult(i)._add(e))}function Xn(t,e){for(var r,n,i,a=!1,o=0;o<t.length;o++)for(var s=0,l=(r=t[o]).length-1;s<r.length;l=s++)n=r[s],i=r[l],n.y>e.y!=i.y>e.y&&e.x<(i.x-n.x)*(e.y-n.y)/(i.y-n.y)+n.x&&(a=!a);return a}function Zn(t,e){for(var r=!1,n=0,i=t.length-1;n<t.length;i=n++){var a=t[n],o=t[i];a.y>e.y!=o.y>e.y&&e.x<(o.x-a.x)*(e.y-a.y)/(o.y-a.y)+a.x&&(r=!r)}return r}function $n(t,e,r){var n=e.paint.get(t).value;return\\\"constant\\\"===n.kind?n.value:r.programConfigurations.get(e.id).binders[t].statistics.max}function Jn(t){return Math.sqrt(t[0]*t[0]+t[1]*t[1])}function Kn(t,e,r,n,i){if(!e[0]&&!e[1])return t;var a=l.convert(e);\\\"viewport\\\"===r&&a._rotate(-n);for(var o=[],s=0;s<t.length;s++){for(var c=t[s],u=[],f=0;f<c.length;f++)u.push(c[f].sub(a._mult(i)));o.push(u)}return o}Nn.prototype.populate=function(t,e){for(var r=0,n=t;r<n.length;r+=1){var i=n[r],a=i.feature,o=i.index,s=i.sourceLayerIndex;if(this.layers[0]._featureFilter(new Lr(this.zoom),a)){var l=Fn(a);this.addFeature(a,l),e.featureIndex.insert(a,l,o,s,this.index)}}},Nn.prototype.isEmpty=function(){return 0===this.layoutVertexArray.length},Nn.prototype.upload=function(t){this.layoutVertexBuffer=t.createVertexBuffer(this.layoutVertexArray,An),this.indexBuffer=t.createIndexBuffer(this.indexArray),this.programConfigurations.upload(t)},Nn.prototype.destroy=function(){this.layoutVertexBuffer&&(this.layoutVertexBuffer.destroy(),this.indexBuffer.destroy(),this.programConfigurations.destroy(),this.segments.destroy())},Nn.prototype.addFeature=function(t,e){for(var r=0,n=e;r<n.length;r+=1)for(var i=0,a=n[r];i<a.length;i+=1){var o=a[i],s=o.x,l=o.y;if(!(s<0||s>=Pn||l<0||l>=Pn)){var c=this.segments.prepareSegment(4,this.layoutVertexArray,this.indexArray),u=c.vertexLength;Bn(this.layoutVertexArray,s,l,-1,-1),Bn(this.layoutVertexArray,s,l,1,-1),Bn(this.layoutVertexArray,s,l,1,1),Bn(this.layoutVertexArray,s,l,-1,1),this.indexArray.emplaceBack(u,u+1,u+2),this.indexArray.emplaceBack(u,u+3,u+2),c.vertexLength+=4,c.primitiveLength+=2}}this.programConfigurations.populatePaintArrays(this.layoutVertexArray.length,t)},pr(\\\"CircleBucket\\\",Nn,{omit:[\\\"layers\\\"]});var Qn={paint:new Hr({\\\"circle-radius\\\":new jr(I.paint_circle[\\\"circle-radius\\\"]),\\\"circle-color\\\":new jr(I.paint_circle[\\\"circle-color\\\"]),\\\"circle-blur\\\":new jr(I.paint_circle[\\\"circle-blur\\\"]),\\\"circle-opacity\\\":new jr(I.paint_circle[\\\"circle-opacity\\\"]),\\\"circle-translate\\\":new Nr(I.paint_circle[\\\"circle-translate\\\"]),\\\"circle-translate-anchor\\\":new Nr(I.paint_circle[\\\"circle-translate-anchor\\\"]),\\\"circle-pitch-scale\\\":new Nr(I.paint_circle[\\\"circle-pitch-scale\\\"]),\\\"circle-pitch-alignment\\\":new Nr(I.paint_circle[\\\"circle-pitch-alignment\\\"]),\\\"circle-stroke-width\\\":new jr(I.paint_circle[\\\"circle-stroke-width\\\"]),\\\"circle-stroke-color\\\":new jr(I.paint_circle[\\\"circle-stroke-color\\\"]),\\\"circle-stroke-opacity\\\":new jr(I.paint_circle[\\\"circle-stroke-opacity\\\"])})},ti=i(function(t,e){var r;t.exports=((r=new Float32Array(3))[0]=0,r[1]=0,r[2]=0,function(){var t=new Float32Array(4);t[0]=0,t[1]=0,t[2]=0,t[3]=0}(),{vec3:{transformMat3:function(t,e,r){var n=e[0],i=e[1],a=e[2];return t[0]=n*r[0]+i*r[3]+a*r[6],t[1]=n*r[1]+i*r[4]+a*r[7],t[2]=n*r[2]+i*r[5]+a*r[8],t}},vec4:{transformMat4:function(t,e,r){var n=e[0],i=e[1],a=e[2],o=e[3];return t[0]=r[0]*n+r[4]*i+r[8]*a+r[12]*o,t[1]=r[1]*n+r[5]*i+r[9]*a+r[13]*o,t[2]=r[2]*n+r[6]*i+r[10]*a+r[14]*o,t[3]=r[3]*n+r[7]*i+r[11]*a+r[15]*o,t}},mat2:{create:function(){var t=new Float32Array(4);return t[0]=1,t[1]=0,t[2]=0,t[3]=1,t},rotate:function(t,e,r){var n=e[0],i=e[1],a=e[2],o=e[3],s=Math.sin(r),l=Math.cos(r);return t[0]=n*l+a*s,t[1]=i*l+o*s,t[2]=n*-s+a*l,t[3]=i*-s+o*l,t},scale:function(t,e,r){var n=e[0],i=e[1],a=e[2],o=e[3],s=r[0],l=r[1];return t[0]=n*s,t[1]=i*s,t[2]=a*l,t[3]=o*l,t}},mat3:{create:function(){var t=new Float32Array(9);return t[0]=1,t[1]=0,t[2]=0,t[3]=0,t[4]=1,t[5]=0,t[6]=0,t[7]=0,t[8]=1,t},fromRotation:function(t,e){var r=Math.sin(e),n=Math.cos(e);return t[0]=n,t[1]=r,t[2]=0,t[3]=-r,t[4]=n,t[5]=0,t[6]=0,t[7]=0,t[8]=1,t}},mat4:{create:function(){var t=new Float32Array(16);return t[0]=1,t[1]=0,t[2]=0,t[3]=0,t[4]=0,t[5]=1,t[6]=0,t[7]=0,t[8]=0,t[9]=0,t[10]=1,t[11]=0,t[12]=0,t[13]=0,t[14]=0,t[15]=1,t},identity:function(t){return t[0]=1,t[1]=0,t[2]=0,t[3]=0,t[4]=0,t[5]=1,t[6]=0,t[7]=0,t[8]=0,t[9]=0,t[10]=1,t[11]=0,t[12]=0,t[13]=0,t[14]=0,t[15]=1,t},translate:function(t,e,r){var n,i,a,o,s,l,c,u,f,h,p,d,g=r[0],v=r[1],m=r[2];return e===t?(t[12]=e[0]*g+e[4]*v+e[8]*m+e[12],t[13]=e[1]*g+e[5]*v+e[9]*m+e[13],t[14]=e[2]*g+e[6]*v+e[10]*m+e[14],t[15]=e[3]*g+e[7]*v+e[11]*m+e[15]):(n=e[0],i=e[1],a=e[2],o=e[3],s=e[4],l=e[5],c=e[6],u=e[7],f=e[8],h=e[9],p=e[10],d=e[11],t[0]=n,t[1]=i,t[2]=a,t[3]=o,t[4]=s,t[5]=l,t[6]=c,t[7]=u,t[8]=f,t[9]=h,t[10]=p,t[11]=d,t[12]=n*g+s*v+f*m+e[12],t[13]=i*g+l*v+h*m+e[13],t[14]=a*g+c*v+p*m+e[14],t[15]=o*g+u*v+d*m+e[15]),t},scale:function(t,e,r){var n=r[0],i=r[1],a=r[2];return t[0]=e[0]*n,t[1]=e[1]*n,t[2]=e[2]*n,t[3]=e[3]*n,t[4]=e[4]*i,t[5]=e[5]*i,t[6]=e[6]*i,t[7]=e[7]*i,t[8]=e[8]*a,t[9]=e[9]*a,t[10]=e[10]*a,t[11]=e[11]*a,t[12]=e[12],t[13]=e[13],t[14]=e[14],t[15]=e[15],t},multiply:function(t,e,r){var n=e[0],i=e[1],a=e[2],o=e[3],s=e[4],l=e[5],c=e[6],u=e[7],f=e[8],h=e[9],p=e[10],d=e[11],g=e[12],v=e[13],m=e[14],y=e[15],x=r[0],b=r[1],_=r[2],w=r[3];return t[0]=x*n+b*s+_*f+w*g,t[1]=x*i+b*l+_*h+w*v,t[2]=x*a+b*c+_*p+w*m,t[3]=x*o+b*u+_*d+w*y,x=r[4],b=r[5],_=r[6],w=r[7],t[4]=x*n+b*s+_*f+w*g,t[5]=x*i+b*l+_*h+w*v,t[6]=x*a+b*c+_*p+w*m,t[7]=x*o+b*u+_*d+w*y,x=r[8],b=r[9],_=r[10],w=r[11],t[8]=x*n+b*s+_*f+w*g,t[9]=x*i+b*l+_*h+w*v,t[10]=x*a+b*c+_*p+w*m,t[11]=x*o+b*u+_*d+w*y,x=r[12],b=r[13],_=r[14],w=r[15],t[12]=x*n+b*s+_*f+w*g,t[13]=x*i+b*l+_*h+w*v,t[14]=x*a+b*c+_*p+w*m,t[15]=x*o+b*u+_*d+w*y,t},perspective:function(t,e,r,n,i){var a=1/Math.tan(e/2),o=1/(n-i);return t[0]=a/r,t[1]=0,t[2]=0,t[3]=0,t[4]=0,t[5]=a,t[6]=0,t[7]=0,t[8]=0,t[9]=0,t[10]=(i+n)*o,t[11]=-1,t[12]=0,t[13]=0,t[14]=2*i*n*o,t[15]=0,t},rotateX:function(t,e,r){var n=Math.sin(r),i=Math.cos(r),a=e[4],o=e[5],s=e[6],l=e[7],c=e[8],u=e[9],f=e[10],h=e[11];return e!==t&&(t[0]=e[0],t[1]=e[1],t[2]=e[2],t[3]=e[3],t[12]=e[12],t[13]=e[13],t[14]=e[14],t[15]=e[15]),t[4]=a*i+c*n,t[5]=o*i+u*n,t[6]=s*i+f*n,t[7]=l*i+h*n,t[8]=c*i-a*n,t[9]=u*i-o*n,t[10]=f*i-s*n,t[11]=h*i-l*n,t},rotateZ:function(t,e,r){var n=Math.sin(r),i=Math.cos(r),a=e[0],o=e[1],s=e[2],l=e[3],c=e[4],u=e[5],f=e[6],h=e[7];return e!==t&&(t[8]=e[8],t[9]=e[9],t[10]=e[10],t[11]=e[11],t[12]=e[12],t[13]=e[13],t[14]=e[14],t[15]=e[15]),t[0]=a*i+c*n,t[1]=o*i+u*n,t[2]=s*i+f*n,t[3]=l*i+h*n,t[4]=c*i-a*n,t[5]=u*i-o*n,t[6]=f*i-s*n,t[7]=h*i-l*n,t},invert:function(t,e){var r=e[0],n=e[1],i=e[2],a=e[3],o=e[4],s=e[5],l=e[6],c=e[7],u=e[8],f=e[9],h=e[10],p=e[11],d=e[12],g=e[13],v=e[14],m=e[15],y=r*s-n*o,x=r*l-i*o,b=r*c-a*o,_=n*l-i*s,w=n*c-a*s,k=i*c-a*l,T=u*g-f*d,A=u*v-h*d,M=u*m-p*d,S=f*v-h*g,E=f*m-p*g,C=h*m-p*v,L=y*C-x*E+b*S+_*M-w*A+k*T;return L?(L=1/L,t[0]=(s*C-l*E+c*S)*L,t[1]=(i*E-n*C-a*S)*L,t[2]=(g*k-v*w+m*_)*L,t[3]=(h*w-f*k-p*_)*L,t[4]=(l*M-o*C-c*A)*L,t[5]=(r*C-i*M+a*A)*L,t[6]=(v*b-d*k-m*x)*L,t[7]=(u*k-h*b+p*x)*L,t[8]=(o*E-s*M+c*T)*L,t[9]=(n*M-r*E-a*T)*L,t[10]=(d*w-g*b+m*y)*L,t[11]=(f*b-u*w-p*y)*L,t[12]=(s*A-o*S-l*T)*L,t[13]=(r*S-n*A+i*T)*L,t[14]=(g*x-d*_-v*y)*L,t[15]=(u*_-f*x+h*y)*L,t):null},ortho:function(t,e,r,n,i,a,o){var s=1/(e-r),l=1/(n-i),c=1/(a-o);return t[0]=-2*s,t[1]=0,t[2]=0,t[3]=0,t[4]=0,t[5]=-2*l,t[6]=0,t[7]=0,t[8]=0,t[9]=0,t[10]=2*c,t[11]=0,t[12]=(e+r)*s,t[13]=(i+n)*l,t[14]=(o+a)*c,t[15]=1,t}}})}),ei=(ti.vec3,ti.vec4),ri=(ti.mat2,ti.mat3,ti.mat4),ni=function(t){function e(e){t.call(this,e,Qn)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.createBucket=function(t){return new Nn(t)},e.prototype.queryRadius=function(t){var e=t;return $n(\\\"circle-radius\\\",this,e)+$n(\\\"circle-stroke-width\\\",this,e)+Jn(this.paint.get(\\\"circle-translate\\\"))},e.prototype.queryIntersectsFeature=function(t,e,r,n,i,a,o){for(var s=Kn(t,this.paint.get(\\\"circle-translate\\\"),this.paint.get(\\\"circle-translate-anchor\\\"),i.angle,a),l=this.paint.get(\\\"circle-radius\\\").evaluate(e)+this.paint.get(\\\"circle-stroke-width\\\").evaluate(e),c=\\\"map\\\"===this.paint.get(\\\"circle-pitch-alignment\\\"),u=c?s:function(t,e,r){return s.map(function(t){return t.map(function(t){return ii(t,e,r)})})}(0,o,i),f=c?l*a:l,h=0,p=r;h<p.length;h+=1)for(var d=0,g=p[h];d<g.length;d+=1){var v=g[d],m=c?v:ii(v,o,i),y=f,x=ei.transformMat4([],[v.x,v.y,0,1],o);if(\\\"viewport\\\"===this.paint.get(\\\"circle-pitch-scale\\\")&&\\\"map\\\"===this.paint.get(\\\"circle-pitch-alignment\\\")?y*=x[3]/i.cameraToCenterDistance:\\\"map\\\"===this.paint.get(\\\"circle-pitch-scale\\\")&&\\\"viewport\\\"===this.paint.get(\\\"circle-pitch-alignment\\\")&&(y*=i.cameraToCenterDistance/x[3]),jn(u,m,y))return!0}return!1},e}(qr);function ii(t,e,r){var n=ei.transformMat4([],[t.x,t.y,0,1],e);return new l((n[0]/n[3]+1)*r.width*.5,(n[1]/n[3]+1)*r.height*.5)}var ai=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e}(Nn);function oi(t,e,r,n){var i=e.width,a=e.height;if(n){if(n.length!==i*a*r)throw new RangeError(\\\"mismatched image size\\\")}else n=new Uint8Array(i*a*r);return t.width=i,t.height=a,t.data=n,t}function si(t,e,r){var n=e.width,i=e.height;if(n!==t.width||i!==t.height){var a=oi({},{width:n,height:i},r);li(t,a,{x:0,y:0},{x:0,y:0},{width:Math.min(t.width,n),height:Math.min(t.height,i)},r),t.width=n,t.height=i,t.data=a.data}}function li(t,e,r,n,i,a){if(0===i.width||0===i.height)return e;if(i.width>t.width||i.height>t.height||r.x>t.width-i.width||r.y>t.height-i.height)throw new RangeError(\\\"out of range source coordinates for image copy\\\");if(i.width>e.width||i.height>e.height||n.x>e.width-i.width||n.y>e.height-i.height)throw new RangeError(\\\"out of range destination coordinates for image copy\\\");for(var o=t.data,s=e.data,l=0;l<i.height;l++)for(var c=((r.y+l)*t.width+r.x)*a,u=((n.y+l)*e.width+n.x)*a,f=0;f<i.width*a;f++)s[u+f]=o[c+f];return e}pr(\\\"HeatmapBucket\\\",ai,{omit:[\\\"layers\\\"]});var ci=function(t,e){oi(this,t,1,e)};ci.prototype.resize=function(t){si(this,t,1)},ci.prototype.clone=function(){return new ci({width:this.width,height:this.height},new Uint8Array(this.data))},ci.copy=function(t,e,r,n,i){li(t,e,r,n,i,1)};var ui=function(t,e){oi(this,t,4,e)};ui.prototype.resize=function(t){si(this,t,4)},ui.prototype.clone=function(){return new ui({width:this.width,height:this.height},new Uint8Array(this.data))},ui.copy=function(t,e,r,n,i){li(t,e,r,n,i,4)},pr(\\\"AlphaImage\\\",ci),pr(\\\"RGBAImage\\\",ui);var fi={paint:new Hr({\\\"heatmap-radius\\\":new jr(I.paint_heatmap[\\\"heatmap-radius\\\"]),\\\"heatmap-weight\\\":new jr(I.paint_heatmap[\\\"heatmap-weight\\\"]),\\\"heatmap-intensity\\\":new Nr(I.paint_heatmap[\\\"heatmap-intensity\\\"]),\\\"heatmap-color\\\":new Ur(I.paint_heatmap[\\\"heatmap-color\\\"]),\\\"heatmap-opacity\\\":new Nr(I.paint_heatmap[\\\"heatmap-opacity\\\"])})};function hi(t,e){for(var r=new Uint8Array(1024),n={},i=0,a=0;i<256;i++,a+=4){n[e]=i/255;var o=t.evaluate(n);r[a+0]=Math.floor(255*o.r/o.a),r[a+1]=Math.floor(255*o.g/o.a),r[a+2]=Math.floor(255*o.b/o.a),r[a+3]=Math.floor(255*o.a)}return new ui({width:256,height:1},r)}var pi=function(t){function e(e){t.call(this,e,fi),this._updateColorRamp()}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.createBucket=function(t){return new ai(t)},e.prototype.setPaintProperty=function(e,r,n){t.prototype.setPaintProperty.call(this,e,r,n),\\\"heatmap-color\\\"===e&&this._updateColorRamp()},e.prototype._updateColorRamp=function(){var t=this._transitionablePaint._values[\\\"heatmap-color\\\"].value.expression;this.colorRamp=hi(t,\\\"heatmapDensity\\\"),this.colorRampTexture=null},e.prototype.resize=function(){this.heatmapFbo&&(this.heatmapFbo.destroy(),this.heatmapFbo=null)},e.prototype.queryRadius=function(){return 0},e.prototype.queryIntersectsFeature=function(){return!1},e.prototype.hasOffscreenPass=function(){return 0!==this.paint.get(\\\"heatmap-opacity\\\")&&\\\"none\\\"!==this.visibility},e}(qr),di={paint:new Hr({\\\"hillshade-illumination-direction\\\":new Nr(I.paint_hillshade[\\\"hillshade-illumination-direction\\\"]),\\\"hillshade-illumination-anchor\\\":new Nr(I.paint_hillshade[\\\"hillshade-illumination-anchor\\\"]),\\\"hillshade-exaggeration\\\":new Nr(I.paint_hillshade[\\\"hillshade-exaggeration\\\"]),\\\"hillshade-shadow-color\\\":new Nr(I.paint_hillshade[\\\"hillshade-shadow-color\\\"]),\\\"hillshade-highlight-color\\\":new Nr(I.paint_hillshade[\\\"hillshade-highlight-color\\\"]),\\\"hillshade-accent-color\\\":new Nr(I.paint_hillshade[\\\"hillshade-accent-color\\\"])})},gi=function(t){function e(e){t.call(this,e,di)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.hasOffscreenPass=function(){return 0!==this.paint.get(\\\"hillshade-exaggeration\\\")&&\\\"none\\\"!==this.visibility},e}(qr),vi=Xr([{name:\\\"a_pos\\\",components:2,type:\\\"Int16\\\"}],4).members,mi=xi,yi=xi;function xi(t,e,r){r=r||2;var n,i,a,o,s,l,c,u=e&&e.length,f=u?e[0]*r:t.length,h=bi(t,0,f,r,!0),p=[];if(!h)return p;if(u&&(h=function(t,e,r,n){var i,a,o,s=[];for(i=0,a=e.length;i<a;i++)(o=bi(t,e[i]*n,i<a-1?e[i+1]*n:t.length,n,!1))===o.next&&(o.steiner=!0),s.push(Li(o));for(s.sort(Si),i=0;i<s.length;i++)Ei(s[i],r),r=_i(r,r.next);return r}(t,e,h,r)),t.length>80*r){n=a=t[0],i=o=t[1];for(var d=r;d<f;d+=r)(s=t[d])<n&&(n=s),(l=t[d+1])<i&&(i=l),s>a&&(a=s),l>o&&(o=l);c=0!==(c=Math.max(a-n,o-i))?1/c:0}return wi(h,p,r,n,i,c),p}function bi(t,e,r,n,i){var a,o;if(i===Vi(t,e,r,n)>0)for(a=e;a<r;a+=n)o=Bi(a,t[a],t[a+1],o);else for(a=r-n;a>=e;a-=n)o=Bi(a,t[a],t[a+1],o);return o&&Di(o,o.next)&&(Ni(o),o=o.next),o}function _i(t,e){if(!t)return t;e||(e=t);var r,n=t;do{if(r=!1,n.steiner||!Di(n,n.next)&&0!==Ii(n.prev,n,n.next))n=n.next;else{if(Ni(n),(n=e=n.prev)===n.next)break;r=!0}}while(r||n!==e);return e}function wi(t,e,r,n,i,a,o){if(t){!o&&a&&function(t,e,r,n){var i=t;do{null===i.z&&(i.z=Ci(i.x,i.y,e,r,n)),i.prevZ=i.prev,i.nextZ=i.next,i=i.next}while(i!==t);i.prevZ.nextZ=null,i.prevZ=null,function(t){var e,r,n,i,a,o,s,l,c=1;do{for(r=t,t=null,a=null,o=0;r;){for(o++,n=r,s=0,e=0;e<c&&(s++,n=n.nextZ);e++);for(l=c;s>0||l>0&&n;)0!==s&&(0===l||!n||r.z<=n.z)?(i=r,r=r.nextZ,s--):(i=n,n=n.nextZ,l--),a?a.nextZ=i:t=i,i.prevZ=a,a=i;r=n}a.nextZ=null,c*=2}while(o>1)}(i)}(t,n,i,a);for(var s,l,c=t;t.prev!==t.next;)if(s=t.prev,l=t.next,a?Ti(t,n,i,a):ki(t))e.push(s.i/r),e.push(t.i/r),e.push(l.i/r),Ni(t),t=l.next,c=l.next;else if((t=l)===c){o?1===o?wi(t=Ai(t,e,r),e,r,n,i,a,2):2===o&&Mi(t,e,r,n,i,a):wi(_i(t),e,r,n,i,a,1);break}}}function ki(t){var e=t.prev,r=t,n=t.next;if(Ii(e,r,n)>=0)return!1;for(var i=t.next.next;i!==t.prev;){if(zi(e.x,e.y,r.x,r.y,n.x,n.y,i.x,i.y)&&Ii(i.prev,i,i.next)>=0)return!1;i=i.next}return!0}function Ti(t,e,r,n){var i=t.prev,a=t,o=t.next;if(Ii(i,a,o)>=0)return!1;for(var s=i.x<a.x?i.x<o.x?i.x:o.x:a.x<o.x?a.x:o.x,l=i.y<a.y?i.y<o.y?i.y:o.y:a.y<o.y?a.y:o.y,c=i.x>a.x?i.x>o.x?i.x:o.x:a.x>o.x?a.x:o.x,u=i.y>a.y?i.y>o.y?i.y:o.y:a.y>o.y?a.y:o.y,f=Ci(s,l,e,r,n),h=Ci(c,u,e,r,n),p=t.prevZ,d=t.nextZ;p&&p.z>=f&&d&&d.z<=h;){if(p!==t.prev&&p!==t.next&&zi(i.x,i.y,a.x,a.y,o.x,o.y,p.x,p.y)&&Ii(p.prev,p,p.next)>=0)return!1;if(p=p.prevZ,d!==t.prev&&d!==t.next&&zi(i.x,i.y,a.x,a.y,o.x,o.y,d.x,d.y)&&Ii(d.prev,d,d.next)>=0)return!1;d=d.nextZ}for(;p&&p.z>=f;){if(p!==t.prev&&p!==t.next&&zi(i.x,i.y,a.x,a.y,o.x,o.y,p.x,p.y)&&Ii(p.prev,p,p.next)>=0)return!1;p=p.prevZ}for(;d&&d.z<=h;){if(d!==t.prev&&d!==t.next&&zi(i.x,i.y,a.x,a.y,o.x,o.y,d.x,d.y)&&Ii(d.prev,d,d.next)>=0)return!1;d=d.nextZ}return!0}function Ai(t,e,r){var n=t;do{var i=n.prev,a=n.next.next;!Di(i,a)&&Pi(i,n,n.next,a)&&Ri(i,a)&&Ri(a,i)&&(e.push(i.i/r),e.push(n.i/r),e.push(a.i/r),Ni(n),Ni(n.next),n=t=a),n=n.next}while(n!==t);return n}function Mi(t,e,r,n,i,a){var o=t;do{for(var s=o.next.next;s!==o.prev;){if(o.i!==s.i&&Oi(o,s)){var l=Fi(o,s);return o=_i(o,o.next),l=_i(l,l.next),wi(o,e,r,n,i,a),void wi(l,e,r,n,i,a)}s=s.next}o=o.next}while(o!==t)}function Si(t,e){return t.x-e.x}function Ei(t,e){if(e=function(t,e){var r,n=e,i=t.x,a=t.y,o=-1/0;do{if(a<=n.y&&a>=n.next.y&&n.next.y!==n.y){var s=n.x+(a-n.y)*(n.next.x-n.x)/(n.next.y-n.y);if(s<=i&&s>o){if(o=s,s===i){if(a===n.y)return n;if(a===n.next.y)return n.next}r=n.x<n.next.x?n:n.next}}n=n.next}while(n!==e);if(!r)return null;if(i===o)return r.prev;var l,c=r,u=r.x,f=r.y,h=1/0;for(n=r.next;n!==c;)i>=n.x&&n.x>=u&&i!==n.x&&zi(a<f?i:o,a,u,f,a<f?o:i,a,n.x,n.y)&&((l=Math.abs(a-n.y)/(i-n.x))<h||l===h&&n.x>r.x)&&Ri(n,t)&&(r=n,h=l),n=n.next;return r}(t,e)){var r=Fi(e,t);_i(r,r.next)}}function Ci(t,e,r,n,i){return(t=1431655765&((t=858993459&((t=252645135&((t=16711935&((t=32767*(t-r)*i)|t<<8))|t<<4))|t<<2))|t<<1))|(e=1431655765&((e=858993459&((e=252645135&((e=16711935&((e=32767*(e-n)*i)|e<<8))|e<<4))|e<<2))|e<<1))<<1}function Li(t){var e=t,r=t;do{e.x<r.x&&(r=e),e=e.next}while(e!==t);return r}function zi(t,e,r,n,i,a,o,s){return(i-o)*(e-s)-(t-o)*(a-s)>=0&&(t-o)*(n-s)-(r-o)*(e-s)>=0&&(r-o)*(a-s)-(i-o)*(n-s)>=0}function Oi(t,e){return t.next.i!==e.i&&t.prev.i!==e.i&&!function(t,e){var r=t;do{if(r.i!==t.i&&r.next.i!==t.i&&r.i!==e.i&&r.next.i!==e.i&&Pi(r,r.next,t,e))return!0;r=r.next}while(r!==t);return!1}(t,e)&&Ri(t,e)&&Ri(e,t)&&function(t,e){var r=t,n=!1,i=(t.x+e.x)/2,a=(t.y+e.y)/2;do{r.y>a!=r.next.y>a&&r.next.y!==r.y&&i<(r.next.x-r.x)*(a-r.y)/(r.next.y-r.y)+r.x&&(n=!n),r=r.next}while(r!==t);return n}(t,e)}function Ii(t,e,r){return(e.y-t.y)*(r.x-e.x)-(e.x-t.x)*(r.y-e.y)}function Di(t,e){return t.x===e.x&&t.y===e.y}function Pi(t,e,r,n){return!!(Di(t,e)&&Di(r,n)||Di(t,n)&&Di(r,e))||Ii(t,e,r)>0!=Ii(t,e,n)>0&&Ii(r,n,t)>0!=Ii(r,n,e)>0}function Ri(t,e){return Ii(t.prev,t,t.next)<0?Ii(t,e,t.next)>=0&&Ii(t,t.prev,e)>=0:Ii(t,e,t.prev)<0||Ii(t,t.next,e)<0}function Fi(t,e){var r=new ji(t.i,t.x,t.y),n=new ji(e.i,e.x,e.y),i=t.next,a=e.prev;return t.next=e,e.prev=t,r.next=i,i.prev=r,n.next=r,r.prev=n,a.next=n,n.prev=a,n}function Bi(t,e,r,n){var i=new ji(t,e,r);return n?(i.next=n.next,i.prev=n,n.next.prev=i,n.next=i):(i.prev=i,i.next=i),i}function Ni(t){t.next.prev=t.prev,t.prev.next=t.next,t.prevZ&&(t.prevZ.nextZ=t.nextZ),t.nextZ&&(t.nextZ.prevZ=t.prevZ)}function ji(t,e,r){this.i=t,this.x=e,this.y=r,this.prev=null,this.next=null,this.z=null,this.prevZ=null,this.nextZ=null,this.steiner=!1}function Vi(t,e,r,n){for(var i=0,a=e,o=r-n;a<r;a+=n)i+=(t[o]-t[a])*(t[a+1]+t[o+1]),o=a;return i}xi.deviation=function(t,e,r,n){var i=e&&e.length,a=i?e[0]*r:t.length,o=Math.abs(Vi(t,0,a,r));if(i)for(var s=0,l=e.length;s<l;s++){var c=e[s]*r,u=s<l-1?e[s+1]*r:t.length;o-=Math.abs(Vi(t,c,u,r))}var f=0;for(s=0;s<n.length;s+=3){var h=n[s]*r,p=n[s+1]*r,d=n[s+2]*r;f+=Math.abs((t[h]-t[d])*(t[p+1]-t[h+1])-(t[h]-t[p])*(t[d+1]-t[h+1]))}return 0===o&&0===f?0:Math.abs((f-o)/o)},xi.flatten=function(t){for(var e=t[0][0].length,r={vertices:[],holes:[],dimensions:e},n=0,i=0;i<t.length;i++){for(var a=0;a<t[i].length;a++)for(var o=0;o<e;o++)r.vertices.push(t[i][a][o]);i>0&&(n+=t[i-1].length,r.holes.push(n))}return r},mi.default=yi;var Ui=qi,Hi=qi;function qi(t,e,r,n,i){!function t(e,r,n,i,a){for(;i>n;){if(i-n>600){var o=i-n+1,s=r-n+1,l=Math.log(o),c=.5*Math.exp(2*l/3),u=.5*Math.sqrt(l*c*(o-c)/o)*(s-o/2<0?-1:1);t(e,r,Math.max(n,Math.floor(r-s*c/o+u)),Math.min(i,Math.floor(r+(o-s)*c/o+u)),a)}var f=e[r],h=n,p=i;for(Gi(e,n,r),a(e[i],f)>0&&Gi(e,n,i);h<p;){for(Gi(e,h,p),h++,p--;a(e[h],f)<0;)h++;for(;a(e[p],f)>0;)p--}0===a(e[n],f)?Gi(e,n,p):Gi(e,++p,i),p<=r&&(n=p+1),r<=p&&(i=p-1)}}(t,e,r||0,n||t.length-1,i||Yi)}function Gi(t,e,r){var n=t[e];t[e]=t[r],t[r]=n}function Yi(t,e){return t<e?-1:t>e?1:0}function Wi(t,e){var r=t.length;if(r<=1)return[t];for(var n,i,a=[],o=0;o<r;o++){var s=k(t[o]);0!==s&&(t[o].area=Math.abs(s),void 0===i&&(i=s<0),i===s<0?(n&&a.push(n),n=[t[o]]):n.push(t[o]))}if(n&&a.push(n),e>1)for(var l=0;l<a.length;l++)a[l].length<=e||(Ui(a[l],e,1,a[l].length-1,Xi),a[l]=a[l].slice(0,e));return a}function Xi(t,e){return e.area-t.area}Ui.default=Hi;var Zi=function(t){this.zoom=t.zoom,this.overscaling=t.overscaling,this.layers=t.layers,this.layerIds=this.layers.map(function(t){return t.id}),this.index=t.index,this.layoutVertexArray=new $r,this.indexArray=new fn,this.indexArray2=new hn,this.programConfigurations=new In(vi,t.layers,t.zoom),this.segments=new Mn,this.segments2=new Mn};Zi.prototype.populate=function(t,e){for(var r=0,n=t;r<n.length;r+=1){var i=n[r],a=i.feature,o=i.index,s=i.sourceLayerIndex;if(this.layers[0]._featureFilter(new Lr(this.zoom),a)){var l=Fn(a);this.addFeature(a,l),e.featureIndex.insert(a,l,o,s,this.index)}}},Zi.prototype.isEmpty=function(){return 0===this.layoutVertexArray.length},Zi.prototype.upload=function(t){this.layoutVertexBuffer=t.createVertexBuffer(this.layoutVertexArray,vi),this.indexBuffer=t.createIndexBuffer(this.indexArray),this.indexBuffer2=t.createIndexBuffer(this.indexArray2),this.programConfigurations.upload(t)},Zi.prototype.destroy=function(){this.layoutVertexBuffer&&(this.layoutVertexBuffer.destroy(),this.indexBuffer.destroy(),this.indexBuffer2.destroy(),this.programConfigurations.destroy(),this.segments.destroy(),this.segments2.destroy())},Zi.prototype.addFeature=function(t,e){for(var r=0,n=Wi(e,500);r<n.length;r+=1){for(var i=n[r],a=0,o=0,s=i;o<s.length;o+=1)a+=s[o].length;for(var l=this.segments.prepareSegment(a,this.layoutVertexArray,this.indexArray),c=l.vertexLength,u=[],f=[],h=0,p=i;h<p.length;h+=1){var d=p[h];if(0!==d.length){d!==i[0]&&f.push(u.length/2);var g=this.segments2.prepareSegment(d.length,this.layoutVertexArray,this.indexArray2),v=g.vertexLength;this.layoutVertexArray.emplaceBack(d[0].x,d[0].y),this.indexArray2.emplaceBack(v+d.length-1,v),u.push(d[0].x),u.push(d[0].y);for(var m=1;m<d.length;m++)this.layoutVertexArray.emplaceBack(d[m].x,d[m].y),this.indexArray2.emplaceBack(v+m-1,v+m),u.push(d[m].x),u.push(d[m].y);g.vertexLength+=d.length,g.primitiveLength+=d.length}}for(var y=mi(u,f),x=0;x<y.length;x+=3)this.indexArray.emplaceBack(c+y[x],c+y[x+1],c+y[x+2]);l.vertexLength+=a,l.primitiveLength+=y.length/3}this.programConfigurations.populatePaintArrays(this.layoutVertexArray.length,t)},pr(\\\"FillBucket\\\",Zi,{omit:[\\\"layers\\\"]});var $i={paint:new Hr({\\\"fill-antialias\\\":new Nr(I.paint_fill[\\\"fill-antialias\\\"]),\\\"fill-opacity\\\":new jr(I.paint_fill[\\\"fill-opacity\\\"]),\\\"fill-color\\\":new jr(I.paint_fill[\\\"fill-color\\\"]),\\\"fill-outline-color\\\":new jr(I.paint_fill[\\\"fill-outline-color\\\"]),\\\"fill-translate\\\":new Nr(I.paint_fill[\\\"fill-translate\\\"]),\\\"fill-translate-anchor\\\":new Nr(I.paint_fill[\\\"fill-translate-anchor\\\"]),\\\"fill-pattern\\\":new Vr(I.paint_fill[\\\"fill-pattern\\\"])})},Ji=function(t){function e(e){t.call(this,e,$i)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.recalculate=function(t){this.paint=this._transitioningPaint.possiblyEvaluate(t);var e=this.paint._values[\\\"fill-outline-color\\\"];\\\"constant\\\"===e.value.kind&&void 0===e.value.value&&(this.paint._values[\\\"fill-outline-color\\\"]=this.paint._values[\\\"fill-color\\\"])},e.prototype.createBucket=function(t){return new Zi(t)},e.prototype.queryRadius=function(){return Jn(this.paint.get(\\\"fill-translate\\\"))},e.prototype.queryIntersectsFeature=function(t,e,r,n,i,a){return Vn(Kn(t,this.paint.get(\\\"fill-translate\\\"),this.paint.get(\\\"fill-translate-anchor\\\"),i.angle,a),r)},e}(qr),Ki=Xr([{name:\\\"a_pos\\\",components:2,type:\\\"Int16\\\"},{name:\\\"a_normal_ed\\\",components:4,type:\\\"Int16\\\"}],4).members,Qi=Math.pow(2,13);function ta(t,e,r,n,i,a,o,s){t.emplaceBack(e,r,2*Math.floor(n*Qi)+o,i*Qi*2,a*Qi*2,Math.round(s))}var ea=function(t){this.zoom=t.zoom,this.overscaling=t.overscaling,this.layers=t.layers,this.layerIds=this.layers.map(function(t){return t.id}),this.index=t.index,this.layoutVertexArray=new Kr,this.indexArray=new fn,this.programConfigurations=new In(Ki,t.layers,t.zoom),this.segments=new Mn};function ra(t,e){return t.x===e.x&&(t.x<0||t.x>Pn)||t.y===e.y&&(t.y<0||t.y>Pn)}function na(t){return t.every(function(t){return t.x<0})||t.every(function(t){return t.x>Pn})||t.every(function(t){return t.y<0})||t.every(function(t){return t.y>Pn})}ea.prototype.populate=function(t,e){for(var r=0,n=t;r<n.length;r+=1){var i=n[r],a=i.feature,o=i.index,s=i.sourceLayerIndex;if(this.layers[0]._featureFilter(new Lr(this.zoom),a)){var l=Fn(a);this.addFeature(a,l),e.featureIndex.insert(a,l,o,s,this.index)}}},ea.prototype.isEmpty=function(){return 0===this.layoutVertexArray.length},ea.prototype.upload=function(t){this.layoutVertexBuffer=t.createVertexBuffer(this.layoutVertexArray,Ki),this.indexBuffer=t.createIndexBuffer(this.indexArray),this.programConfigurations.upload(t)},ea.prototype.destroy=function(){this.layoutVertexBuffer&&(this.layoutVertexBuffer.destroy(),this.indexBuffer.destroy(),this.programConfigurations.destroy(),this.segments.destroy())},ea.prototype.addFeature=function(t,e){for(var r=0,n=Wi(e,500);r<n.length;r+=1){for(var i=n[r],a=0,o=0,s=i;o<s.length;o+=1)a+=s[o].length;for(var l=this.segments.prepareSegment(4,this.layoutVertexArray,this.indexArray),c=0,u=i;c<u.length;c+=1){var f=u[c];if(0!==f.length&&!na(f))for(var h=0,p=0;p<f.length;p++){var d=f[p];if(p>=1){var g=f[p-1];if(!ra(d,g)){l.vertexLength+4>Mn.MAX_VERTEX_ARRAY_LENGTH&&(l=this.segments.prepareSegment(4,this.layoutVertexArray,this.indexArray));var v=d.sub(g)._perp()._unit(),m=g.dist(d);h+m>32768&&(h=0),ta(this.layoutVertexArray,d.x,d.y,v.x,v.y,0,0,h),ta(this.layoutVertexArray,d.x,d.y,v.x,v.y,0,1,h),h+=m,ta(this.layoutVertexArray,g.x,g.y,v.x,v.y,0,0,h),ta(this.layoutVertexArray,g.x,g.y,v.x,v.y,0,1,h);var y=l.vertexLength;this.indexArray.emplaceBack(y,y+1,y+2),this.indexArray.emplaceBack(y+1,y+2,y+3),l.vertexLength+=4,l.primitiveLength+=2}}}}l.vertexLength+a>Mn.MAX_VERTEX_ARRAY_LENGTH&&(l=this.segments.prepareSegment(a,this.layoutVertexArray,this.indexArray));for(var x=[],b=[],_=l.vertexLength,w=0,k=i;w<k.length;w+=1){var T=k[w];if(0!==T.length){T!==i[0]&&b.push(x.length/2);for(var A=0;A<T.length;A++){var M=T[A];ta(this.layoutVertexArray,M.x,M.y,0,0,1,1,0),x.push(M.x),x.push(M.y)}}}for(var S=mi(x,b),E=0;E<S.length;E+=3)this.indexArray.emplaceBack(_+S[E],_+S[E+1],_+S[E+2]);l.primitiveLength+=S.length/3,l.vertexLength+=a}this.programConfigurations.populatePaintArrays(this.layoutVertexArray.length,t)},pr(\\\"FillExtrusionBucket\\\",ea,{omit:[\\\"layers\\\"]});var ia={paint:new Hr({\\\"fill-extrusion-opacity\\\":new Nr(I[\\\"paint_fill-extrusion\\\"][\\\"fill-extrusion-opacity\\\"]),\\\"fill-extrusion-color\\\":new jr(I[\\\"paint_fill-extrusion\\\"][\\\"fill-extrusion-color\\\"]),\\\"fill-extrusion-translate\\\":new Nr(I[\\\"paint_fill-extrusion\\\"][\\\"fill-extrusion-translate\\\"]),\\\"fill-extrusion-translate-anchor\\\":new Nr(I[\\\"paint_fill-extrusion\\\"][\\\"fill-extrusion-translate-anchor\\\"]),\\\"fill-extrusion-pattern\\\":new Vr(I[\\\"paint_fill-extrusion\\\"][\\\"fill-extrusion-pattern\\\"]),\\\"fill-extrusion-height\\\":new jr(I[\\\"paint_fill-extrusion\\\"][\\\"fill-extrusion-height\\\"]),\\\"fill-extrusion-base\\\":new jr(I[\\\"paint_fill-extrusion\\\"][\\\"fill-extrusion-base\\\"])})},aa=function(t){function e(e){t.call(this,e,ia)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.createBucket=function(t){return new ea(t)},e.prototype.queryRadius=function(){return Jn(this.paint.get(\\\"fill-extrusion-translate\\\"))},e.prototype.queryIntersectsFeature=function(t,e,r,n,i,a){return Vn(Kn(t,this.paint.get(\\\"fill-extrusion-translate\\\"),this.paint.get(\\\"fill-extrusion-translate-anchor\\\"),i.angle,a),r)},e.prototype.hasOffscreenPass=function(){return 0!==this.paint.get(\\\"fill-extrusion-opacity\\\")&&\\\"none\\\"!==this.visibility},e.prototype.resize=function(){this.viewportFrame&&(this.viewportFrame.destroy(),this.viewportFrame=null)},e}(qr),oa=Xr([{name:\\\"a_pos_normal\\\",components:4,type:\\\"Int16\\\"},{name:\\\"a_data\\\",components:4,type:\\\"Uint8\\\"}],4).members,sa=la;function la(t,e,r,n,i){this.properties={},this.extent=r,this.type=0,this._pbf=t,this._geometry=-1,this._keys=n,this._values=i,t.readFields(ca,this,e)}function ca(t,e,r){1==t?e.id=r.readVarint():2==t?function(t,e){for(var r=t.readVarint()+t.pos;t.pos<r;){var n=e._keys[t.readVarint()],i=e._values[t.readVarint()];e.properties[n]=i}}(r,e):3==t?e.type=r.readVarint():4==t&&(e._geometry=r.pos)}function ua(t){for(var e,r,n=0,i=0,a=t.length,o=a-1;i<a;o=i++)e=t[i],n+=((r=t[o]).x-e.x)*(e.y+r.y);return n}la.types=[\\\"Unknown\\\",\\\"Point\\\",\\\"LineString\\\",\\\"Polygon\\\"],la.prototype.loadGeometry=function(){var t=this._pbf;t.pos=this._geometry;for(var e,r=t.readVarint()+t.pos,n=1,i=0,a=0,o=0,s=[];t.pos<r;){if(i<=0){var c=t.readVarint();n=7&c,i=c>>3}if(i--,1===n||2===n)a+=t.readSVarint(),o+=t.readSVarint(),1===n&&(e&&s.push(e),e=[]),e.push(new l(a,o));else{if(7!==n)throw new Error(\\\"unknown command \\\"+n);e&&e.push(e[0].clone())}}return e&&s.push(e),s},la.prototype.bbox=function(){var t=this._pbf;t.pos=this._geometry;for(var e=t.readVarint()+t.pos,r=1,n=0,i=0,a=0,o=1/0,s=-1/0,l=1/0,c=-1/0;t.pos<e;){if(n<=0){var u=t.readVarint();r=7&u,n=u>>3}if(n--,1===r||2===r)(i+=t.readSVarint())<o&&(o=i),i>s&&(s=i),(a+=t.readSVarint())<l&&(l=a),a>c&&(c=a);else if(7!==r)throw new Error(\\\"unknown command \\\"+r)}return[o,l,s,c]},la.prototype.toGeoJSON=function(t,e,r){var n,i,a=this.extent*Math.pow(2,r),o=this.extent*t,s=this.extent*e,l=this.loadGeometry(),c=la.types[this.type];function u(t){for(var e=0;e<t.length;e++){var r=t[e],n=180-360*(r.y+s)/a;t[e]=[360*(r.x+o)/a-180,360/Math.PI*Math.atan(Math.exp(n*Math.PI/180))-90]}}switch(this.type){case 1:var f=[];for(n=0;n<l.length;n++)f[n]=l[n][0];u(l=f);break;case 2:for(n=0;n<l.length;n++)u(l[n]);break;case 3:for(l=function(t){var e=t.length;if(e<=1)return[t];for(var r,n,i=[],a=0;a<e;a++){var o=ua(t[a]);0!==o&&(void 0===n&&(n=o<0),n===o<0?(r&&i.push(r),r=[t[a]]):r.push(t[a]))}return r&&i.push(r),i}(l),n=0;n<l.length;n++)for(i=0;i<l[n].length;i++)u(l[n][i])}1===l.length?l=l[0]:c=\\\"Multi\\\"+c;var h={type:\\\"Feature\\\",geometry:{type:c,coordinates:l},properties:this.properties};return\\\"id\\\"in this&&(h.id=this.id),h};var fa=ha;function ha(t,e){this.version=1,this.name=null,this.extent=4096,this.length=0,this._pbf=t,this._keys=[],this._values=[],this._features=[],t.readFields(pa,this,e),this.length=this._features.length}function pa(t,e,r){15===t?e.version=r.readVarint():1===t?e.name=r.readString():5===t?e.extent=r.readVarint():2===t?e._features.push(r.pos):3===t?e._keys.push(r.readString()):4===t&&e._values.push(function(t){for(var e=null,r=t.readVarint()+t.pos;t.pos<r;){var n=t.readVarint()>>3;e=1===n?t.readString():2===n?t.readFloat():3===n?t.readDouble():4===n?t.readVarint64():5===n?t.readVarint():6===n?t.readSVarint():7===n?t.readBoolean():null}return e}(r))}function da(t,e,r){if(3===t){var n=new fa(r,r.readVarint()+r.pos);n.length&&(e[n.name]=n)}}ha.prototype.feature=function(t){if(t<0||t>=this._features.length)throw new Error(\\\"feature index out of bounds\\\");this._pbf.pos=this._features[t];var e=this._pbf.readVarint()+this._pbf.pos;return new sa(this._pbf,e,this.extent,this._keys,this._values)};var ga={VectorTile:function(t,e){this.layers=t.readFields(da,{},e)},VectorTileFeature:sa,VectorTileLayer:fa},va=ga.VectorTileFeature.types,ma=63,ya=Math.cos(Math.PI/180*37.5),xa=.5,ba=Math.pow(2,14)/xa;function _a(t,e,r,n,i,a,o){t.emplaceBack(e.x,e.y,n?1:0,i?1:-1,Math.round(ma*r.x)+128,Math.round(ma*r.y)+128,1+(0===a?0:a<0?-1:1)|(o*xa&63)<<2,o*xa>>6)}var wa=function(t){this.zoom=t.zoom,this.overscaling=t.overscaling,this.layers=t.layers,this.layerIds=this.layers.map(function(t){return t.id}),this.index=t.index,this.layoutVertexArray=new Qr,this.indexArray=new fn,this.programConfigurations=new In(oa,t.layers,t.zoom),this.segments=new Mn};function ka(t,e){return(t/e.tileTotal*(e.end-e.start)+e.start)*(ba-1)}wa.prototype.populate=function(t,e){for(var r=0,n=t;r<n.length;r+=1){var i=n[r],a=i.feature,o=i.index,s=i.sourceLayerIndex;if(this.layers[0]._featureFilter(new Lr(this.zoom),a)){var l=Fn(a);this.addFeature(a,l),e.featureIndex.insert(a,l,o,s,this.index)}}},wa.prototype.isEmpty=function(){return 0===this.layoutVertexArray.length},wa.prototype.upload=function(t){this.layoutVertexBuffer=t.createVertexBuffer(this.layoutVertexArray,oa),this.indexBuffer=t.createIndexBuffer(this.indexArray),this.programConfigurations.upload(t)},wa.prototype.destroy=function(){this.layoutVertexBuffer&&(this.layoutVertexBuffer.destroy(),this.indexBuffer.destroy(),this.programConfigurations.destroy(),this.segments.destroy())},wa.prototype.addFeature=function(t,e){for(var r=this.layers[0].layout,n=r.get(\\\"line-join\\\").evaluate(t),i=r.get(\\\"line-cap\\\"),a=r.get(\\\"line-miter-limit\\\"),o=r.get(\\\"line-round-limit\\\"),s=0,l=e;s<l.length;s+=1){var c=l[s];this.addLine(c,t,n,i,a,o)}},wa.prototype.addLine=function(t,e,r,n,i,a){var o=null;e.properties&&e.properties.hasOwnProperty(\\\"mapbox_clip_start\\\")&&e.properties.hasOwnProperty(\\\"mapbox_clip_end\\\")&&(o={start:e.properties.mapbox_clip_start,end:e.properties.mapbox_clip_end,tileTotal:void 0});for(var s=\\\"Polygon\\\"===va[e.type],l=t.length;l>=2&&t[l-1].equals(t[l-2]);)l--;for(var c=0;c<l-1&&t[c].equals(t[c+1]);)c++;if(!(l<(s?3:2))){o&&(o.tileTotal=function(t,e,r){for(var n,i,a=0,o=c;o<r-1;o++)n=t[o],i=t[o+1],a+=n.dist(i);return a}(t,0,l)),\\\"bevel\\\"===r&&(i=1.05);var u=Pn/(512*this.overscaling)*15,f=t[c],h=this.segments.prepareSegment(10*l,this.layoutVertexArray,this.indexArray);this.distance=0;var p,d,g,v=n,m=s?\\\"butt\\\":n,y=!0,x=void 0,b=void 0,_=void 0,w=void 0;this.e1=this.e2=this.e3=-1,s&&(p=t[l-2],w=f.sub(p)._unit()._perp());for(var k=c;k<l;k++)if(!(b=s&&k===l-1?t[c+1]:t[k+1])||!t[k].equals(b)){w&&(_=w),p&&(x=p),p=t[k],w=b?b.sub(p)._unit()._perp():_;var T=(_=_||w).add(w);0===T.x&&0===T.y||T._unit();var A=T.x*w.x+T.y*w.y,M=0!==A?1/A:1/0,S=A<ya&&x&&b;if(S&&k>c){var E=p.dist(x);if(E>2*u){var C=p.sub(p.sub(x)._mult(u/E)._round());this.distance+=C.dist(x),this.addCurrentVertex(C,this.distance,_.mult(1),0,0,!1,h,o),x=C}}var L=x&&b,z=L?r:b?v:m;if(L&&\\\"round\\\"===z&&(M<a?z=\\\"miter\\\":M<=2&&(z=\\\"fakeround\\\")),\\\"miter\\\"===z&&M>i&&(z=\\\"bevel\\\"),\\\"bevel\\\"===z&&(M>2&&(z=\\\"flipbevel\\\"),M<i&&(z=\\\"miter\\\")),x&&(this.distance+=p.dist(x)),\\\"miter\\\"===z)T._mult(M),this.addCurrentVertex(p,this.distance,T,0,0,!1,h,o);else if(\\\"flipbevel\\\"===z){if(M>100)T=w.clone().mult(-1);else{var O=_.x*w.y-_.y*w.x>0?-1:1,I=M*_.add(w).mag()/_.sub(w).mag();T._perp()._mult(I*O)}this.addCurrentVertex(p,this.distance,T,0,0,!1,h,o),this.addCurrentVertex(p,this.distance,T.mult(-1),0,0,!1,h,o)}else if(\\\"bevel\\\"===z||\\\"fakeround\\\"===z){var D=_.x*w.y-_.y*w.x>0,P=-Math.sqrt(M*M-1);if(D?(g=0,d=P):(d=0,g=P),y||this.addCurrentVertex(p,this.distance,_,d,g,!1,h,o),\\\"fakeround\\\"===z){for(var R=Math.floor(8*(.5-(A-.5))),F=void 0,B=0;B<R;B++)F=w.mult((B+1)/(R+1))._add(_)._unit(),this.addPieSliceVertex(p,this.distance,F,D,h,o);this.addPieSliceVertex(p,this.distance,T,D,h,o);for(var N=R-1;N>=0;N--)F=_.mult((N+1)/(R+1))._add(w)._unit(),this.addPieSliceVertex(p,this.distance,F,D,h,o)}b&&this.addCurrentVertex(p,this.distance,w,-d,-g,!1,h,o)}else\\\"butt\\\"===z?(y||this.addCurrentVertex(p,this.distance,_,0,0,!1,h,o),b&&this.addCurrentVertex(p,this.distance,w,0,0,!1,h,o)):\\\"square\\\"===z?(y||(this.addCurrentVertex(p,this.distance,_,1,1,!1,h,o),this.e1=this.e2=-1),b&&this.addCurrentVertex(p,this.distance,w,-1,-1,!1,h,o)):\\\"round\\\"===z&&(y||(this.addCurrentVertex(p,this.distance,_,0,0,!1,h,o),this.addCurrentVertex(p,this.distance,_,1,1,!0,h,o),this.e1=this.e2=-1),b&&(this.addCurrentVertex(p,this.distance,w,-1,-1,!0,h,o),this.addCurrentVertex(p,this.distance,w,0,0,!1,h,o)));if(S&&k<l-1){var j=p.dist(b);if(j>2*u){var V=p.add(b.sub(p)._mult(u/j)._round());this.distance+=V.dist(p),this.addCurrentVertex(V,this.distance,w.mult(1),0,0,!1,h,o),p=V}}y=!1}this.programConfigurations.populatePaintArrays(this.layoutVertexArray.length,e)}},wa.prototype.addCurrentVertex=function(t,e,r,n,i,a,o,s){var l,c=this.layoutVertexArray,u=this.indexArray;s&&(e=ka(e,s)),l=r.clone(),n&&l._sub(r.perp()._mult(n)),_a(c,t,l,a,!1,n,e),this.e3=o.vertexLength++,this.e1>=0&&this.e2>=0&&(u.emplaceBack(this.e1,this.e2,this.e3),o.primitiveLength++),this.e1=this.e2,this.e2=this.e3,l=r.mult(-1),i&&l._sub(r.perp()._mult(i)),_a(c,t,l,a,!0,-i,e),this.e3=o.vertexLength++,this.e1>=0&&this.e2>=0&&(u.emplaceBack(this.e1,this.e2,this.e3),o.primitiveLength++),this.e1=this.e2,this.e2=this.e3,e>ba/2&&!s&&(this.distance=0,this.addCurrentVertex(t,this.distance,r,n,i,a,o))},wa.prototype.addPieSliceVertex=function(t,e,r,n,i,a){r=r.mult(n?-1:1);var o=this.layoutVertexArray,s=this.indexArray;a&&(e=ka(e,a)),_a(o,t,r,!1,n,0,e),this.e3=i.vertexLength++,this.e1>=0&&this.e2>=0&&(s.emplaceBack(this.e1,this.e2,this.e3),i.primitiveLength++),n?this.e2=this.e3:this.e1=this.e3},pr(\\\"LineBucket\\\",wa,{omit:[\\\"layers\\\"]});var Ta=new Hr({\\\"line-cap\\\":new Nr(I.layout_line[\\\"line-cap\\\"]),\\\"line-join\\\":new jr(I.layout_line[\\\"line-join\\\"]),\\\"line-miter-limit\\\":new Nr(I.layout_line[\\\"line-miter-limit\\\"]),\\\"line-round-limit\\\":new Nr(I.layout_line[\\\"line-round-limit\\\"])}),Aa={paint:new Hr({\\\"line-opacity\\\":new jr(I.paint_line[\\\"line-opacity\\\"]),\\\"line-color\\\":new jr(I.paint_line[\\\"line-color\\\"]),\\\"line-translate\\\":new Nr(I.paint_line[\\\"line-translate\\\"]),\\\"line-translate-anchor\\\":new Nr(I.paint_line[\\\"line-translate-anchor\\\"]),\\\"line-width\\\":new jr(I.paint_line[\\\"line-width\\\"]),\\\"line-gap-width\\\":new jr(I.paint_line[\\\"line-gap-width\\\"]),\\\"line-offset\\\":new jr(I.paint_line[\\\"line-offset\\\"]),\\\"line-blur\\\":new jr(I.paint_line[\\\"line-blur\\\"]),\\\"line-dasharray\\\":new Vr(I.paint_line[\\\"line-dasharray\\\"]),\\\"line-pattern\\\":new Vr(I.paint_line[\\\"line-pattern\\\"]),\\\"line-gradient\\\":new Ur(I.paint_line[\\\"line-gradient\\\"])}),layout:Ta},Ma=new(function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.possiblyEvaluate=function(e,r){return r=new Lr(Math.floor(r.zoom),{now:r.now,fadeDuration:r.fadeDuration,zoomHistory:r.zoomHistory,transition:r.transition}),t.prototype.possiblyEvaluate.call(this,e,r)},e.prototype.evaluate=function(e,r,n){return r=p({},r,{zoom:Math.floor(r.zoom)}),t.prototype.evaluate.call(this,e,r,n)},e}(jr))(Aa.paint.properties[\\\"line-width\\\"].specification);Ma.useIntegerZoom=!0;var Sa=function(t){function e(e){t.call(this,e,Aa)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.setPaintProperty=function(e,r,n){t.prototype.setPaintProperty.call(this,e,r,n),\\\"line-gradient\\\"===e&&this._updateGradient()},e.prototype._updateGradient=function(){var t=this._transitionablePaint._values[\\\"line-gradient\\\"].value.expression;this.gradient=hi(t,\\\"lineProgress\\\"),this.gradientTexture=null},e.prototype.recalculate=function(e){t.prototype.recalculate.call(this,e),this.paint._values[\\\"line-floorwidth\\\"]=Ma.possiblyEvaluate(this._transitioningPaint._values[\\\"line-width\\\"].value,e)},e.prototype.createBucket=function(t){return new wa(t)},e.prototype.queryRadius=function(t){var e=t,r=Ea($n(\\\"line-width\\\",this,e),$n(\\\"line-gap-width\\\",this,e)),n=$n(\\\"line-offset\\\",this,e);return r/2+Math.abs(n)+Jn(this.paint.get(\\\"line-translate\\\"))},e.prototype.queryIntersectsFeature=function(t,e,r,n,i,a){var o=Kn(t,this.paint.get(\\\"line-translate\\\"),this.paint.get(\\\"line-translate-anchor\\\"),i.angle,a),s=a/2*Ea(this.paint.get(\\\"line-width\\\").evaluate(e),this.paint.get(\\\"line-gap-width\\\").evaluate(e)),c=this.paint.get(\\\"line-offset\\\").evaluate(e);return c&&(r=function(t,e){for(var r=[],n=new l(0,0),i=0;i<t.length;i++){for(var a=t[i],o=[],s=0;s<a.length;s++){var c=a[s-1],u=a[s],f=a[s+1],h=0===s?n:u.sub(c)._unit()._perp(),p=s===a.length-1?n:f.sub(u)._unit()._perp(),d=h._add(p)._unit(),g=d.x*p.x+d.y*p.y;d._mult(1/g),o.push(d._mult(e)._add(u))}r.push(o)}return r}(r,c*a)),Un(o,r,s)},e}(qr);function Ea(t,e){return e>0?e+2*t:t}var Ca=Xr([{name:\\\"a_pos_offset\\\",components:4,type:\\\"Int16\\\"},{name:\\\"a_data\\\",components:4,type:\\\"Uint16\\\"}]),La=Xr([{name:\\\"a_projected_pos\\\",components:3,type:\\\"Float32\\\"}],4),za=(Xr([{name:\\\"a_fade_opacity\\\",components:1,type:\\\"Uint32\\\"}],4),Xr([{name:\\\"a_placed\\\",components:2,type:\\\"Uint8\\\"}],4)),Oa=(Xr([{type:\\\"Int16\\\",name:\\\"anchorPointX\\\"},{type:\\\"Int16\\\",name:\\\"anchorPointY\\\"},{type:\\\"Int16\\\",name:\\\"x1\\\"},{type:\\\"Int16\\\",name:\\\"y1\\\"},{type:\\\"Int16\\\",name:\\\"x2\\\"},{type:\\\"Int16\\\",name:\\\"y2\\\"},{type:\\\"Uint32\\\",name:\\\"featureIndex\\\"},{type:\\\"Uint16\\\",name:\\\"sourceLayerIndex\\\"},{type:\\\"Uint16\\\",name:\\\"bucketIndex\\\"},{type:\\\"Int16\\\",name:\\\"radius\\\"},{type:\\\"Int16\\\",name:\\\"signedDistanceFromAnchor\\\"}]),Xr([{name:\\\"a_pos\\\",components:2,type:\\\"Int16\\\"},{name:\\\"a_anchor_pos\\\",components:2,type:\\\"Int16\\\"},{name:\\\"a_extrude\\\",components:2,type:\\\"Int16\\\"}],4)),Ia=Xr([{name:\\\"a_pos\\\",components:2,type:\\\"Int16\\\"},{name:\\\"a_anchor_pos\\\",components:2,type:\\\"Int16\\\"},{name:\\\"a_extrude\\\",components:2,type:\\\"Int16\\\"}],4);function Da(t,e,r){var n=e.layout.get(\\\"text-transform\\\").evaluate(r);return\\\"uppercase\\\"===n?t=t.toLocaleUpperCase():\\\"lowercase\\\"===n&&(t=t.toLocaleLowerCase()),Cr.applyArabicShaping&&(t=Cr.applyArabicShaping(t)),t}Xr([{type:\\\"Int16\\\",name:\\\"anchorX\\\"},{type:\\\"Int16\\\",name:\\\"anchorY\\\"},{type:\\\"Uint16\\\",name:\\\"glyphStartIndex\\\"},{type:\\\"Uint16\\\",name:\\\"numGlyphs\\\"},{type:\\\"Uint32\\\",name:\\\"vertexStartIndex\\\"},{type:\\\"Uint32\\\",name:\\\"lineStartIndex\\\"},{type:\\\"Uint32\\\",name:\\\"lineLength\\\"},{type:\\\"Uint16\\\",name:\\\"segment\\\"},{type:\\\"Uint16\\\",name:\\\"lowerSize\\\"},{type:\\\"Uint16\\\",name:\\\"upperSize\\\"},{type:\\\"Float32\\\",name:\\\"lineOffsetX\\\"},{type:\\\"Float32\\\",name:\\\"lineOffsetY\\\"},{type:\\\"Uint8\\\",name:\\\"writingMode\\\"},{type:\\\"Uint8\\\",name:\\\"hidden\\\"}]),Xr([{type:\\\"Float32\\\",name:\\\"offsetX\\\"}]),Xr([{type:\\\"Int16\\\",name:\\\"x\\\"},{type:\\\"Int16\\\",name:\\\"y\\\"},{type:\\\"Int16\\\",name:\\\"tileUnitDistanceFromAnchor\\\"}]);var Pa={\\\"!\\\":\\\"\\\\ufe15\\\",\\\"#\\\":\\\"\\\\uff03\\\",$:\\\"\\\\uff04\\\",\\\"%\\\":\\\"\\\\uff05\\\",\\\"&\\\":\\\"\\\\uff06\\\",\\\"(\\\":\\\"\\\\ufe35\\\",\\\")\\\":\\\"\\\\ufe36\\\",\\\"*\\\":\\\"\\\\uff0a\\\",\\\"+\\\":\\\"\\\\uff0b\\\",\\\",\\\":\\\"\\\\ufe10\\\",\\\"-\\\":\\\"\\\\ufe32\\\",\\\".\\\":\\\"\\\\u30fb\\\",\\\"/\\\":\\\"\\\\uff0f\\\",\\\":\\\":\\\"\\\\ufe13\\\",\\\";\\\":\\\"\\\\ufe14\\\",\\\"<\\\":\\\"\\\\ufe3f\\\",\\\"=\\\":\\\"\\\\uff1d\\\",\\\">\\\":\\\"\\\\ufe40\\\",\\\"?\\\":\\\"\\\\ufe16\\\",\\\"@\\\":\\\"\\\\uff20\\\",\\\"[\\\":\\\"\\\\ufe47\\\",\\\"\\\\\\\\\\\":\\\"\\\\uff3c\\\",\\\"]\\\":\\\"\\\\ufe48\\\",\\\"^\\\":\\\"\\\\uff3e\\\",_:\\\"\\\\ufe33\\\",\\\"`\\\":\\\"\\\\uff40\\\",\\\"{\\\":\\\"\\\\ufe37\\\",\\\"|\\\":\\\"\\\\u2015\\\",\\\"}\\\":\\\"\\\\ufe38\\\",\\\"~\\\":\\\"\\\\uff5e\\\",\\\"\\\\xa2\\\":\\\"\\\\uffe0\\\",\\\"\\\\xa3\\\":\\\"\\\\uffe1\\\",\\\"\\\\xa5\\\":\\\"\\\\uffe5\\\",\\\"\\\\xa6\\\":\\\"\\\\uffe4\\\",\\\"\\\\xac\\\":\\\"\\\\uffe2\\\",\\\"\\\\xaf\\\":\\\"\\\\uffe3\\\",\\\"\\\\u2013\\\":\\\"\\\\ufe32\\\",\\\"\\\\u2014\\\":\\\"\\\\ufe31\\\",\\\"\\\\u2018\\\":\\\"\\\\ufe43\\\",\\\"\\\\u2019\\\":\\\"\\\\ufe44\\\",\\\"\\\\u201c\\\":\\\"\\\\ufe41\\\",\\\"\\\\u201d\\\":\\\"\\\\ufe42\\\",\\\"\\\\u2026\\\":\\\"\\\\ufe19\\\",\\\"\\\\u2027\\\":\\\"\\\\u30fb\\\",\\\"\\\\u20a9\\\":\\\"\\\\uffe6\\\",\\\"\\\\u3001\\\":\\\"\\\\ufe11\\\",\\\"\\\\u3002\\\":\\\"\\\\ufe12\\\",\\\"\\\\u3008\\\":\\\"\\\\ufe3f\\\",\\\"\\\\u3009\\\":\\\"\\\\ufe40\\\",\\\"\\\\u300a\\\":\\\"\\\\ufe3d\\\",\\\"\\\\u300b\\\":\\\"\\\\ufe3e\\\",\\\"\\\\u300c\\\":\\\"\\\\ufe41\\\",\\\"\\\\u300d\\\":\\\"\\\\ufe42\\\",\\\"\\\\u300e\\\":\\\"\\\\ufe43\\\",\\\"\\\\u300f\\\":\\\"\\\\ufe44\\\",\\\"\\\\u3010\\\":\\\"\\\\ufe3b\\\",\\\"\\\\u3011\\\":\\\"\\\\ufe3c\\\",\\\"\\\\u3014\\\":\\\"\\\\ufe39\\\",\\\"\\\\u3015\\\":\\\"\\\\ufe3a\\\",\\\"\\\\u3016\\\":\\\"\\\\ufe17\\\",\\\"\\\\u3017\\\":\\\"\\\\ufe18\\\",\\\"\\\\uff01\\\":\\\"\\\\ufe15\\\",\\\"\\\\uff08\\\":\\\"\\\\ufe35\\\",\\\"\\\\uff09\\\":\\\"\\\\ufe36\\\",\\\"\\\\uff0c\\\":\\\"\\\\ufe10\\\",\\\"\\\\uff0d\\\":\\\"\\\\ufe32\\\",\\\"\\\\uff0e\\\":\\\"\\\\u30fb\\\",\\\"\\\\uff1a\\\":\\\"\\\\ufe13\\\",\\\"\\\\uff1b\\\":\\\"\\\\ufe14\\\",\\\"\\\\uff1c\\\":\\\"\\\\ufe3f\\\",\\\"\\\\uff1e\\\":\\\"\\\\ufe40\\\",\\\"\\\\uff1f\\\":\\\"\\\\ufe16\\\",\\\"\\\\uff3b\\\":\\\"\\\\ufe47\\\",\\\"\\\\uff3d\\\":\\\"\\\\ufe48\\\",\\\"\\\\uff3f\\\":\\\"\\\\ufe33\\\",\\\"\\\\uff5b\\\":\\\"\\\\ufe37\\\",\\\"\\\\uff5c\\\":\\\"\\\\u2015\\\",\\\"\\\\uff5d\\\":\\\"\\\\ufe38\\\",\\\"\\\\uff5f\\\":\\\"\\\\ufe35\\\",\\\"\\\\uff60\\\":\\\"\\\\ufe36\\\",\\\"\\\\uff61\\\":\\\"\\\\ufe12\\\",\\\"\\\\uff62\\\":\\\"\\\\ufe41\\\",\\\"\\\\uff63\\\":\\\"\\\\ufe42\\\"},Ra=function(t){function e(e,r,n,i){t.call(this,e,r),this.angle=n,void 0!==i&&(this.segment=i)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.clone=function(){return new e(this.x,this.y,this.angle,this.segment)},e}(l);function Fa(t,e){var r=e.expression;if(\\\"constant\\\"===r.kind)return{functionType:\\\"constant\\\",layoutSize:r.evaluate(new Lr(t+1))};if(\\\"source\\\"===r.kind)return{functionType:\\\"source\\\"};for(var n=r.zoomStops,i=0;i<n.length&&n[i]<=t;)i++;for(var a=i=Math.max(0,i-1);a<n.length&&n[a]<t+1;)a++;a=Math.min(n.length-1,a);var o={min:n[i],max:n[a]};return\\\"composite\\\"===r.kind?{functionType:\\\"composite\\\",zoomRange:o,propertyValue:e.value}:{functionType:\\\"camera\\\",layoutSize:r.evaluate(new Lr(t+1)),zoomRange:o,sizeRange:{min:r.evaluate(new Lr(o.min)),max:r.evaluate(new Lr(o.max))},propertyValue:e.value}}pr(\\\"Anchor\\\",Ra);var Ba=ga.VectorTileFeature.types,Na=[{name:\\\"a_fade_opacity\\\",components:1,type:\\\"Uint8\\\",offset:0}];function ja(t,e,r,n,i,a,o,s){t.emplaceBack(e,r,Math.round(32*n),Math.round(32*i),a,o,s?s[0]:0,s?s[1]:0)}function Va(t,e,r){t.emplaceBack(e.x,e.y,r),t.emplaceBack(e.x,e.y,r),t.emplaceBack(e.x,e.y,r),t.emplaceBack(e.x,e.y,r)}var Ua=function(t){this.layoutVertexArray=new tn,this.indexArray=new fn,this.programConfigurations=t,this.segments=new Mn,this.dynamicLayoutVertexArray=new en,this.opacityVertexArray=new rn,this.placedSymbolArray=new yn};Ua.prototype.upload=function(t,e){this.layoutVertexBuffer=t.createVertexBuffer(this.layoutVertexArray,Ca.members),this.indexBuffer=t.createIndexBuffer(this.indexArray,e),this.programConfigurations.upload(t),this.dynamicLayoutVertexBuffer=t.createVertexBuffer(this.dynamicLayoutVertexArray,La.members,!0),this.opacityVertexBuffer=t.createVertexBuffer(this.opacityVertexArray,Na,!0),this.opacityVertexBuffer.itemSize=1},Ua.prototype.destroy=function(){this.layoutVertexBuffer&&(this.layoutVertexBuffer.destroy(),this.indexBuffer.destroy(),this.programConfigurations.destroy(),this.segments.destroy(),this.dynamicLayoutVertexBuffer.destroy(),this.opacityVertexBuffer.destroy())},pr(\\\"SymbolBuffers\\\",Ua);var Ha=function(t,e,r){this.layoutVertexArray=new t,this.layoutAttributes=e,this.indexArray=new r,this.segments=new Mn,this.collisionVertexArray=new on};Ha.prototype.upload=function(t){this.layoutVertexBuffer=t.createVertexBuffer(this.layoutVertexArray,this.layoutAttributes),this.indexBuffer=t.createIndexBuffer(this.indexArray),this.collisionVertexBuffer=t.createVertexBuffer(this.collisionVertexArray,za.members,!0)},Ha.prototype.destroy=function(){this.layoutVertexBuffer&&(this.layoutVertexBuffer.destroy(),this.indexBuffer.destroy(),this.segments.destroy(),this.collisionVertexBuffer.destroy())},pr(\\\"CollisionBuffers\\\",Ha);var qa=function(t){this.collisionBoxArray=t.collisionBoxArray,this.zoom=t.zoom,this.overscaling=t.overscaling,this.layers=t.layers,this.layerIds=this.layers.map(function(t){return t.id}),this.index=t.index,this.pixelRatio=t.pixelRatio,this.sourceLayerIndex=t.sourceLayerIndex;var e=this.layers[0]._unevaluatedLayout._values;this.textSizeData=Fa(this.zoom,e[\\\"text-size\\\"]),this.iconSizeData=Fa(this.zoom,e[\\\"icon-size\\\"]);var r=this.layers[0].layout;this.sortFeaturesByY=r.get(\\\"text-allow-overlap\\\")||r.get(\\\"icon-allow-overlap\\\")||r.get(\\\"text-ignore-placement\\\")||r.get(\\\"icon-ignore-placement\\\")};qa.prototype.createArrays=function(){this.text=new Ua(new In(Ca.members,this.layers,this.zoom,function(t){return/^text/.test(t)})),this.icon=new Ua(new In(Ca.members,this.layers,this.zoom,function(t){return/^icon/.test(t)})),this.collisionBox=new Ha(an,Oa.members,hn),this.collisionCircle=new Ha(an,Ia.members,fn),this.glyphOffsetArray=new bn,this.lineVertexArray=new wn},qa.prototype.populate=function(t,e){var r=this.layers[0],n=r.layout,i=n.get(\\\"text-font\\\"),a=n.get(\\\"text-field\\\"),o=n.get(\\\"icon-image\\\"),s=(\\\"constant\\\"!==a.value.kind||a.value.value.length>0)&&(\\\"constant\\\"!==i.value.kind||i.value.value.length>0),l=\\\"constant\\\"!==o.value.kind||o.value.value&&o.value.value.length>0;if(this.features=[],s||l){for(var c=e.iconDependencies,u=e.glyphDependencies,f=new Lr(this.zoom),h=0,p=t;h<p.length;h+=1){var d=p[h],g=d.feature,v=d.index,m=d.sourceLayerIndex;if(r._featureFilter(f,g)){var y=void 0;s&&(y=Da(y=r.getValueAndResolveTokens(\\\"text-field\\\",g),r,g));var x=void 0;if(l&&(x=r.getValueAndResolveTokens(\\\"icon-image\\\",g)),y||x){var b={text:y,icon:x,index:v,sourceLayerIndex:m,geometry:Fn(g),properties:g.properties,type:Ba[g.type]};if(void 0!==g.id&&(b.id=g.id),this.features.push(b),x&&(c[x]=!0),y)for(var _=i.evaluate(g).join(\\\",\\\"),w=u[_]=u[_]||{},k=\\\"map\\\"===n.get(\\\"text-rotation-alignment\\\")&&\\\"line\\\"===n.get(\\\"symbol-placement\\\"),T=xr(y),A=0;A<y.length;A++)if(w[y.charCodeAt(A)]=!0,k&&T){var M=Pa[y.charAt(A)];M&&(w[M.charCodeAt(0)]=!0)}}}}\\\"line\\\"===n.get(\\\"symbol-placement\\\")&&(this.features=function(t){var e={},r={},n=[],i=0;function a(e){n.push(t[e]),i++}function o(t,e,i){var a=r[t];return delete r[t],r[e]=a,n[a].geometry[0].pop(),n[a].geometry[0]=n[a].geometry[0].concat(i[0]),a}function s(t,r,i){var a=e[r];return delete e[r],e[t]=a,n[a].geometry[0].shift(),n[a].geometry[0]=i[0].concat(n[a].geometry[0]),a}function l(t,e,r){var n=r?e[0][e[0].length-1]:e[0][0];return t+\\\":\\\"+n.x+\\\":\\\"+n.y}for(var c=0;c<t.length;c++){var u=t[c],f=u.geometry,h=u.text;if(h){var p=l(h,f),d=l(h,f,!0);if(p in r&&d in e&&r[p]!==e[d]){var g=s(p,d,f),v=o(p,d,n[g].geometry);delete e[p],delete r[d],r[l(h,n[v].geometry,!0)]=v,n[g].geometry=null}else p in r?o(p,d,f):d in e?s(p,d,f):(a(c),e[p]=i-1,r[d]=i-1)}else a(c)}return n.filter(function(t){return t.geometry})}(this.features))}},qa.prototype.isEmpty=function(){return 0===this.symbolInstances.length},qa.prototype.upload=function(t){this.text.upload(t,this.sortFeaturesByY),this.icon.upload(t,this.sortFeaturesByY),this.collisionBox.upload(t),this.collisionCircle.upload(t)},qa.prototype.destroy=function(){this.text.destroy(),this.icon.destroy(),this.collisionBox.destroy(),this.collisionCircle.destroy()},qa.prototype.addToLineVertexArray=function(t,e){var r=this.lineVertexArray.length;if(void 0!==t.segment){for(var n=t.dist(e[t.segment+1]),i=t.dist(e[t.segment]),a={},o=t.segment+1;o<e.length;o++)a[o]={x:e[o].x,y:e[o].y,tileUnitDistanceFromAnchor:n},o<e.length-1&&(n+=e[o+1].dist(e[o]));for(var s=t.segment||0;s>=0;s--)a[s]={x:e[s].x,y:e[s].y,tileUnitDistanceFromAnchor:i},s>0&&(i+=e[s-1].dist(e[s]));for(var l=0;l<e.length;l++){var c=a[l];this.lineVertexArray.emplaceBack(c.x,c.y,c.tileUnitDistanceFromAnchor)}}return{lineStartIndex:r,lineLength:this.lineVertexArray.length-r}},qa.prototype.addSymbols=function(t,e,r,n,i,a,o,s,l,c){for(var u=t.indexArray,f=t.layoutVertexArray,h=t.dynamicLayoutVertexArray,p=t.segments.prepareSegment(4*e.length,t.layoutVertexArray,t.indexArray),d=this.glyphOffsetArray.length,g=p.vertexLength,v=0,m=e;v<m.length;v+=1){var y=m[v],x=y.tl,b=y.tr,_=y.bl,w=y.br,k=y.tex,T=p.vertexLength,A=y.glyphOffset[1];ja(f,s.x,s.y,x.x,A+x.y,k.x,k.y,r),ja(f,s.x,s.y,b.x,A+b.y,k.x+k.w,k.y,r),ja(f,s.x,s.y,_.x,A+_.y,k.x,k.y+k.h,r),ja(f,s.x,s.y,w.x,A+w.y,k.x+k.w,k.y+k.h,r),Va(h,s,0),u.emplaceBack(T,T+1,T+2),u.emplaceBack(T+1,T+2,T+3),p.vertexLength+=4,p.primitiveLength+=2,this.glyphOffsetArray.emplaceBack(y.glyphOffset[0])}t.placedSymbolArray.emplaceBack(s.x,s.y,d,this.glyphOffsetArray.length-d,g,l,c,s.segment,r?r[0]:0,r?r[1]:0,n[0],n[1],o,!1),t.programConfigurations.populatePaintArrays(t.layoutVertexArray.length,a)},qa.prototype._addCollisionDebugVertex=function(t,e,r,n,i){return e.emplaceBack(0,0),t.emplaceBack(r.x,r.y,n.x,n.y,Math.round(i.x),Math.round(i.y))},qa.prototype.addCollisionDebugVertices=function(t,e,r,n,i,a,o,s){var c=i.segments.prepareSegment(4,i.layoutVertexArray,i.indexArray),u=c.vertexLength,f=i.layoutVertexArray,h=i.collisionVertexArray;if(this._addCollisionDebugVertex(f,h,a,o.anchor,new l(t,e)),this._addCollisionDebugVertex(f,h,a,o.anchor,new l(r,e)),this._addCollisionDebugVertex(f,h,a,o.anchor,new l(r,n)),this._addCollisionDebugVertex(f,h,a,o.anchor,new l(t,n)),c.vertexLength+=4,s){var p=i.indexArray;p.emplaceBack(u,u+1,u+2),p.emplaceBack(u,u+2,u+3),c.primitiveLength+=2}else{var d=i.indexArray;d.emplaceBack(u,u+1),d.emplaceBack(u+1,u+2),d.emplaceBack(u+2,u+3),d.emplaceBack(u+3,u),c.primitiveLength+=4}},qa.prototype.generateCollisionDebugBuffers=function(){for(var t=0,e=this.symbolInstances;t<e.length;t+=1){var r=e[t];r.textCollisionFeature={boxStartIndex:r.textBoxStartIndex,boxEndIndex:r.textBoxEndIndex},r.iconCollisionFeature={boxStartIndex:r.iconBoxStartIndex,boxEndIndex:r.iconBoxEndIndex};for(var n=0;n<2;n++){var i=r[0===n?\\\"textCollisionFeature\\\":\\\"iconCollisionFeature\\\"];if(i)for(var a=i.boxStartIndex;a<i.boxEndIndex;a++){var o=this.collisionBoxArray.get(a),s=o.x1,l=o.y1,c=o.x2,u=o.y2,f=o.radius>0;this.addCollisionDebugVertices(s,l,c,u,f?this.collisionCircle:this.collisionBox,o.anchorPoint,r,f)}}}},qa.prototype.deserializeCollisionBoxes=function(t,e,r,n,i){for(var a={},o=e;o<r;o++){var s=t.get(o);if(0===s.radius){a.textBox={x1:s.x1,y1:s.y1,x2:s.x2,y2:s.y2,anchorPointX:s.anchorPointX,anchorPointY:s.anchorPointY},a.textFeatureIndex=s.featureIndex;break}a.textCircles||(a.textCircles=[],a.textFeatureIndex=s.featureIndex),a.textCircles.push(s.anchorPointX,s.anchorPointY,s.radius,s.signedDistanceFromAnchor,1)}for(var l=n;l<i;l++){var c=t.get(l);if(0===c.radius){a.iconBox={x1:c.x1,y1:c.y1,x2:c.x2,y2:c.y2,anchorPointX:c.anchorPointX,anchorPointY:c.anchorPointY},a.iconFeatureIndex=c.featureIndex;break}}return a},qa.prototype.hasTextData=function(){return this.text.segments.get().length>0},qa.prototype.hasIconData=function(){return this.icon.segments.get().length>0},qa.prototype.hasCollisionBoxData=function(){return this.collisionBox.segments.get().length>0},qa.prototype.hasCollisionCircleData=function(){return this.collisionCircle.segments.get().length>0},qa.prototype.sortFeatures=function(t){var e=this;if(this.sortFeaturesByY&&this.sortedAngle!==t&&(this.sortedAngle=t,!(this.text.segments.get().length>1||this.icon.segments.get().length>1))){for(var r=[],n=0;n<this.symbolInstances.length;n++)r.push(n);var i=Math.sin(t),a=Math.cos(t);r.sort(function(t,r){var n=e.symbolInstances[t],o=e.symbolInstances[r];return(i*n.anchor.x+a*n.anchor.y|0)-(i*o.anchor.x+a*o.anchor.y|0)||o.featureIndex-n.featureIndex}),this.text.indexArray.clear(),this.icon.indexArray.clear(),this.featureSortOrder=[];for(var o=0,s=r;o<s.length;o+=1){var l=s[o],c=e.symbolInstances[l];e.featureSortOrder.push(c.featureIndex);for(var u=0,f=c.placedTextSymbolIndices;u<f.length;u+=1)for(var h=f[u],p=e.text.placedSymbolArray.get(h),d=p.vertexStartIndex+4*p.numGlyphs,g=p.vertexStartIndex;g<d;g+=4)e.text.indexArray.emplaceBack(g,g+1,g+2),e.text.indexArray.emplaceBack(g+1,g+2,g+3);var v=e.icon.placedSymbolArray.get(l);if(v.numGlyphs){var m=v.vertexStartIndex;e.icon.indexArray.emplaceBack(m,m+1,m+2),e.icon.indexArray.emplaceBack(m+1,m+2,m+3)}}this.text.indexBuffer&&this.text.indexBuffer.updateData(this.text.indexArray),this.icon.indexBuffer&&this.icon.indexBuffer.updateData(this.icon.indexArray)}},pr(\\\"SymbolBucket\\\",qa,{omit:[\\\"layers\\\",\\\"collisionBoxArray\\\",\\\"features\\\",\\\"compareText\\\"],shallow:[\\\"symbolInstances\\\"]}),qa.MAX_GLYPHS=65535,qa.addDynamicAttributes=Va;var Ga=new Hr({\\\"symbol-placement\\\":new Nr(I.layout_symbol[\\\"symbol-placement\\\"]),\\\"symbol-spacing\\\":new Nr(I.layout_symbol[\\\"symbol-spacing\\\"]),\\\"symbol-avoid-edges\\\":new Nr(I.layout_symbol[\\\"symbol-avoid-edges\\\"]),\\\"icon-allow-overlap\\\":new Nr(I.layout_symbol[\\\"icon-allow-overlap\\\"]),\\\"icon-ignore-placement\\\":new Nr(I.layout_symbol[\\\"icon-ignore-placement\\\"]),\\\"icon-optional\\\":new Nr(I.layout_symbol[\\\"icon-optional\\\"]),\\\"icon-rotation-alignment\\\":new Nr(I.layout_symbol[\\\"icon-rotation-alignment\\\"]),\\\"icon-size\\\":new jr(I.layout_symbol[\\\"icon-size\\\"]),\\\"icon-text-fit\\\":new Nr(I.layout_symbol[\\\"icon-text-fit\\\"]),\\\"icon-text-fit-padding\\\":new Nr(I.layout_symbol[\\\"icon-text-fit-padding\\\"]),\\\"icon-image\\\":new jr(I.layout_symbol[\\\"icon-image\\\"]),\\\"icon-rotate\\\":new jr(I.layout_symbol[\\\"icon-rotate\\\"]),\\\"icon-padding\\\":new Nr(I.layout_symbol[\\\"icon-padding\\\"]),\\\"icon-keep-upright\\\":new Nr(I.layout_symbol[\\\"icon-keep-upright\\\"]),\\\"icon-offset\\\":new jr(I.layout_symbol[\\\"icon-offset\\\"]),\\\"icon-anchor\\\":new jr(I.layout_symbol[\\\"icon-anchor\\\"]),\\\"icon-pitch-alignment\\\":new Nr(I.layout_symbol[\\\"icon-pitch-alignment\\\"]),\\\"text-pitch-alignment\\\":new Nr(I.layout_symbol[\\\"text-pitch-alignment\\\"]),\\\"text-rotation-alignment\\\":new Nr(I.layout_symbol[\\\"text-rotation-alignment\\\"]),\\\"text-field\\\":new jr(I.layout_symbol[\\\"text-field\\\"]),\\\"text-font\\\":new jr(I.layout_symbol[\\\"text-font\\\"]),\\\"text-size\\\":new jr(I.layout_symbol[\\\"text-size\\\"]),\\\"text-max-width\\\":new jr(I.layout_symbol[\\\"text-max-width\\\"]),\\\"text-line-height\\\":new Nr(I.layout_symbol[\\\"text-line-height\\\"]),\\\"text-letter-spacing\\\":new jr(I.layout_symbol[\\\"text-letter-spacing\\\"]),\\\"text-justify\\\":new jr(I.layout_symbol[\\\"text-justify\\\"]),\\\"text-anchor\\\":new jr(I.layout_symbol[\\\"text-anchor\\\"]),\\\"text-max-angle\\\":new Nr(I.layout_symbol[\\\"text-max-angle\\\"]),\\\"text-rotate\\\":new jr(I.layout_symbol[\\\"text-rotate\\\"]),\\\"text-padding\\\":new Nr(I.layout_symbol[\\\"text-padding\\\"]),\\\"text-keep-upright\\\":new Nr(I.layout_symbol[\\\"text-keep-upright\\\"]),\\\"text-transform\\\":new jr(I.layout_symbol[\\\"text-transform\\\"]),\\\"text-offset\\\":new jr(I.layout_symbol[\\\"text-offset\\\"]),\\\"text-allow-overlap\\\":new Nr(I.layout_symbol[\\\"text-allow-overlap\\\"]),\\\"text-ignore-placement\\\":new Nr(I.layout_symbol[\\\"text-ignore-placement\\\"]),\\\"text-optional\\\":new Nr(I.layout_symbol[\\\"text-optional\\\"])}),Ya={paint:new Hr({\\\"icon-opacity\\\":new jr(I.paint_symbol[\\\"icon-opacity\\\"]),\\\"icon-color\\\":new jr(I.paint_symbol[\\\"icon-color\\\"]),\\\"icon-halo-color\\\":new jr(I.paint_symbol[\\\"icon-halo-color\\\"]),\\\"icon-halo-width\\\":new jr(I.paint_symbol[\\\"icon-halo-width\\\"]),\\\"icon-halo-blur\\\":new jr(I.paint_symbol[\\\"icon-halo-blur\\\"]),\\\"icon-translate\\\":new Nr(I.paint_symbol[\\\"icon-translate\\\"]),\\\"icon-translate-anchor\\\":new Nr(I.paint_symbol[\\\"icon-translate-anchor\\\"]),\\\"text-opacity\\\":new jr(I.paint_symbol[\\\"text-opacity\\\"]),\\\"text-color\\\":new jr(I.paint_symbol[\\\"text-color\\\"]),\\\"text-halo-color\\\":new jr(I.paint_symbol[\\\"text-halo-color\\\"]),\\\"text-halo-width\\\":new jr(I.paint_symbol[\\\"text-halo-width\\\"]),\\\"text-halo-blur\\\":new jr(I.paint_symbol[\\\"text-halo-blur\\\"]),\\\"text-translate\\\":new Nr(I.paint_symbol[\\\"text-translate\\\"]),\\\"text-translate-anchor\\\":new Nr(I.paint_symbol[\\\"text-translate-anchor\\\"])}),layout:Ga},Wa=function(t){function e(e){t.call(this,e,Ya)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.recalculate=function(e){t.prototype.recalculate.call(this,e),\\\"auto\\\"===this.layout.get(\\\"icon-rotation-alignment\\\")&&(\\\"line\\\"===this.layout.get(\\\"symbol-placement\\\")?this.layout._values[\\\"icon-rotation-alignment\\\"]=\\\"map\\\":this.layout._values[\\\"icon-rotation-alignment\\\"]=\\\"viewport\\\"),\\\"auto\\\"===this.layout.get(\\\"text-rotation-alignment\\\")&&(\\\"line\\\"===this.layout.get(\\\"symbol-placement\\\")?this.layout._values[\\\"text-rotation-alignment\\\"]=\\\"map\\\":this.layout._values[\\\"text-rotation-alignment\\\"]=\\\"viewport\\\"),\\\"auto\\\"===this.layout.get(\\\"text-pitch-alignment\\\")&&(this.layout._values[\\\"text-pitch-alignment\\\"]=this.layout.get(\\\"text-rotation-alignment\\\")),\\\"auto\\\"===this.layout.get(\\\"icon-pitch-alignment\\\")&&(this.layout._values[\\\"icon-pitch-alignment\\\"]=this.layout.get(\\\"icon-rotation-alignment\\\"))},e.prototype.getValueAndResolveTokens=function(t,e){var r,n=this.layout.get(t).evaluate(e),i=this._unevaluatedLayout._values[t];return i.isDataDriven()||_e(i.value)?n:(r=e.properties,n.replace(/{([^{}]+)}/g,function(t,e){return e in r?String(r[e]):\\\"\\\"}))},e.prototype.createBucket=function(t){return new qa(t)},e.prototype.queryRadius=function(){return 0},e.prototype.queryIntersectsFeature=function(){return!1},e}(qr),Xa={paint:new Hr({\\\"background-color\\\":new Nr(I.paint_background[\\\"background-color\\\"]),\\\"background-pattern\\\":new Vr(I.paint_background[\\\"background-pattern\\\"]),\\\"background-opacity\\\":new Nr(I.paint_background[\\\"background-opacity\\\"])})},Za=function(t){function e(e){t.call(this,e,Xa)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e}(qr),$a={paint:new Hr({\\\"raster-opacity\\\":new Nr(I.paint_raster[\\\"raster-opacity\\\"]),\\\"raster-hue-rotate\\\":new Nr(I.paint_raster[\\\"raster-hue-rotate\\\"]),\\\"raster-brightness-min\\\":new Nr(I.paint_raster[\\\"raster-brightness-min\\\"]),\\\"raster-brightness-max\\\":new Nr(I.paint_raster[\\\"raster-brightness-max\\\"]),\\\"raster-saturation\\\":new Nr(I.paint_raster[\\\"raster-saturation\\\"]),\\\"raster-contrast\\\":new Nr(I.paint_raster[\\\"raster-contrast\\\"]),\\\"raster-fade-duration\\\":new Nr(I.paint_raster[\\\"raster-fade-duration\\\"])})},Ja={circle:ni,heatmap:pi,hillshade:gi,fill:Ji,\\\"fill-extrusion\\\":aa,line:Sa,symbol:Wa,background:Za,raster:function(t){function e(e){t.call(this,e,$a)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e}(qr)},Ka=i(function(t,e){t.exports=function(){function t(t,e,r){r=r||{},this.w=t||64,this.h=e||64,this.autoResize=!!r.autoResize,this.shelves=[],this.freebins=[],this.stats={},this.bins={},this.maxId=0}function e(t,e,r){this.x=0,this.y=t,this.w=this.free=e,this.h=r}return t.prototype.pack=function(t,e){t=[].concat(t),e=e||{};for(var r,n,i,a,o=[],s=0;s<t.length;s++)if(r=t[s].w||t[s].width,n=t[s].h||t[s].height,i=t[s].id,r&&n){if(!(a=this.packOne(r,n,i)))continue;e.inPlace&&(t[s].x=a.x,t[s].y=a.y,t[s].id=a.id),o.push(a)}return this.shrink(),o},t.prototype.packOne=function(t,r,n){var i,a,o,s,l,c,u,f,h={freebin:-1,shelf:-1,waste:1/0},p=0;if(\\\"string\\\"==typeof n||\\\"number\\\"==typeof n){if(i=this.getBin(n))return this.ref(i),i;\\\"number\\\"==typeof n&&(this.maxId=Math.max(n,this.maxId))}else n=++this.maxId;for(s=0;s<this.freebins.length;s++){if(r===(i=this.freebins[s]).maxh&&t===i.maxw)return this.allocFreebin(s,t,r,n);r>i.maxh||t>i.maxw||r<=i.maxh&&t<=i.maxw&&(o=i.maxw*i.maxh-t*r)<h.waste&&(h.waste=o,h.freebin=s)}for(s=0;s<this.shelves.length;s++)if(p+=(a=this.shelves[s]).h,!(t>a.free)){if(r===a.h)return this.allocShelf(s,t,r,n);r>a.h||r<a.h&&(o=(a.h-r)*t)<h.waste&&(h.freebin=-1,h.waste=o,h.shelf=s)}return-1!==h.freebin?this.allocFreebin(h.freebin,t,r,n):-1!==h.shelf?this.allocShelf(h.shelf,t,r,n):r<=this.h-p&&t<=this.w?(a=new e(p,this.w,r),this.allocShelf(this.shelves.push(a)-1,t,r,n)):this.autoResize?(l=c=this.h,((u=f=this.w)<=l||t>u)&&(f=2*Math.max(t,u)),(l<u||r>l)&&(c=2*Math.max(r,l)),this.resize(f,c),this.packOne(t,r,n)):null},t.prototype.allocFreebin=function(t,e,r,n){var i=this.freebins.splice(t,1)[0];return i.id=n,i.w=e,i.h=r,i.refcount=0,this.bins[n]=i,this.ref(i),i},t.prototype.allocShelf=function(t,e,r,n){var i=this.shelves[t].alloc(e,r,n);return this.bins[n]=i,this.ref(i),i},t.prototype.shrink=function(){if(this.shelves.length>0){for(var t=0,e=0,r=0;r<this.shelves.length;r++){var n=this.shelves[r];e+=n.h,t=Math.max(n.w-n.free,t)}this.resize(t,e)}},t.prototype.getBin=function(t){return this.bins[t]},t.prototype.ref=function(t){if(1==++t.refcount){var e=t.h;this.stats[e]=1+(0|this.stats[e])}return t.refcount},t.prototype.unref=function(t){return 0===t.refcount?0:(0==--t.refcount&&(this.stats[t.h]--,delete this.bins[t.id],this.freebins.push(t)),t.refcount)},t.prototype.clear=function(){this.shelves=[],this.freebins=[],this.stats={},this.bins={},this.maxId=0},t.prototype.resize=function(t,e){this.w=t,this.h=e;for(var r=0;r<this.shelves.length;r++)this.shelves[r].resize(t);return!0},e.prototype.alloc=function(t,e,r){if(t>this.free||e>this.h)return null;var n=this.x;return this.x+=t,this.free-=t,new function(t,e,r,n,i,a,o){this.id=t,this.x=e,this.y=r,this.w=n,this.h=i,this.maxw=a||n,this.maxh=o||i,this.refcount=0}(r,n,this.y,t,e,t,this.h)},e.prototype.resize=function(t){return this.free+=t-this.w,this.w=t,!0},t}()}),Qa=function(t,e){var r=e.pixelRatio;this.paddedRect=t,this.pixelRatio=r},to={tl:{configurable:!0},br:{configurable:!0},displaySize:{configurable:!0}};to.tl.get=function(){return[this.paddedRect.x+1,this.paddedRect.y+1]},to.br.get=function(){return[this.paddedRect.x+this.paddedRect.w-1,this.paddedRect.y+this.paddedRect.h-1]},to.displaySize.get=function(){return[(this.paddedRect.w-2)/this.pixelRatio,(this.paddedRect.h-2)/this.pixelRatio]},Object.defineProperties(Qa.prototype,to);var eo=function(t){var e=new ui({width:0,height:0}),r={},n=new Ka(0,0,{autoResize:!0});for(var i in t){var a=t[i],o=n.packOne(a.data.width+2,a.data.height+2);e.resize({width:n.w,height:n.h}),ui.copy(a.data,e,{x:0,y:0},{x:o.x+1,y:o.y+1},a.data),r[i]=new Qa(o,a)}n.shrink(),e.resize({width:n.w,height:n.h}),this.image=e,this.positions=r};pr(\\\"ImagePosition\\\",Qa),pr(\\\"ImageAtlas\\\",eo);var ro=function(t,e,r,n,i){var a,o,s=8*i-n-1,l=(1<<s)-1,c=l>>1,u=-7,f=r?i-1:0,h=r?-1:1,p=t[e+f];for(f+=h,a=p&(1<<-u)-1,p>>=-u,u+=s;u>0;a=256*a+t[e+f],f+=h,u-=8);for(o=a&(1<<-u)-1,a>>=-u,u+=n;u>0;o=256*o+t[e+f],f+=h,u-=8);if(0===a)a=1-c;else{if(a===l)return o?NaN:1/0*(p?-1:1);o+=Math.pow(2,n),a-=c}return(p?-1:1)*o*Math.pow(2,a-n)},no=function(t,e,r,n,i,a){var o,s,l,c=8*a-i-1,u=(1<<c)-1,f=u>>1,h=23===i?Math.pow(2,-24)-Math.pow(2,-77):0,p=n?0:a-1,d=n?1:-1,g=e<0||0===e&&1/e<0?1:0;for(e=Math.abs(e),isNaN(e)||e===1/0?(s=isNaN(e)?1:0,o=u):(o=Math.floor(Math.log(e)/Math.LN2),e*(l=Math.pow(2,-o))<1&&(o--,l*=2),(e+=o+f>=1?h/l:h*Math.pow(2,1-f))*l>=2&&(o++,l/=2),o+f>=u?(s=0,o=u):o+f>=1?(s=(e*l-1)*Math.pow(2,i),o+=f):(s=e*Math.pow(2,f-1)*Math.pow(2,i),o=0));i>=8;t[r+p]=255&s,p+=d,s/=256,i-=8);for(o=o<<i|s,c+=i;c>0;t[r+p]=255&o,p+=d,o/=256,c-=8);t[r+p-d]|=128*g},io=ao;function ao(t){this.buf=ArrayBuffer.isView&&ArrayBuffer.isView(t)?t:new Uint8Array(t||0),this.pos=0,this.type=0,this.length=this.buf.length}function oo(t){return t.type===ao.Bytes?t.readVarint()+t.pos:t.pos+1}function so(t,e,r){return r?4294967296*e+(t>>>0):4294967296*(e>>>0)+(t>>>0)}function lo(t,e,r){var n=e<=16383?1:e<=2097151?2:e<=268435455?3:Math.ceil(Math.log(e)/(7*Math.LN2));r.realloc(n);for(var i=r.pos-1;i>=t;i--)r.buf[i+n]=r.buf[i]}function co(t,e){for(var r=0;r<t.length;r++)e.writeVarint(t[r])}function uo(t,e){for(var r=0;r<t.length;r++)e.writeSVarint(t[r])}function fo(t,e){for(var r=0;r<t.length;r++)e.writeFloat(t[r])}function ho(t,e){for(var r=0;r<t.length;r++)e.writeDouble(t[r])}function po(t,e){for(var r=0;r<t.length;r++)e.writeBoolean(t[r])}function go(t,e){for(var r=0;r<t.length;r++)e.writeFixed32(t[r])}function vo(t,e){for(var r=0;r<t.length;r++)e.writeSFixed32(t[r])}function mo(t,e){for(var r=0;r<t.length;r++)e.writeFixed64(t[r])}function yo(t,e){for(var r=0;r<t.length;r++)e.writeSFixed64(t[r])}function xo(t,e){return(t[e]|t[e+1]<<8|t[e+2]<<16)+16777216*t[e+3]}function bo(t,e,r){t[r]=e,t[r+1]=e>>>8,t[r+2]=e>>>16,t[r+3]=e>>>24}function _o(t,e){return(t[e]|t[e+1]<<8|t[e+2]<<16)+(t[e+3]<<24)}ao.Varint=0,ao.Fixed64=1,ao.Bytes=2,ao.Fixed32=5,ao.prototype={destroy:function(){this.buf=null},readFields:function(t,e,r){for(r=r||this.length;this.pos<r;){var n=this.readVarint(),i=n>>3,a=this.pos;this.type=7&n,t(i,e,this),this.pos===a&&this.skip(n)}return e},readMessage:function(t,e){return this.readFields(t,e,this.readVarint()+this.pos)},readFixed32:function(){var t=xo(this.buf,this.pos);return this.pos+=4,t},readSFixed32:function(){var t=_o(this.buf,this.pos);return this.pos+=4,t},readFixed64:function(){var t=xo(this.buf,this.pos)+4294967296*xo(this.buf,this.pos+4);return this.pos+=8,t},readSFixed64:function(){var t=xo(this.buf,this.pos)+4294967296*_o(this.buf,this.pos+4);return this.pos+=8,t},readFloat:function(){var t=ro(this.buf,this.pos,!0,23,4);return this.pos+=4,t},readDouble:function(){var t=ro(this.buf,this.pos,!0,52,8);return this.pos+=8,t},readVarint:function(t){var e,r,n=this.buf;return e=127&(r=n[this.pos++]),r<128?e:(e|=(127&(r=n[this.pos++]))<<7,r<128?e:(e|=(127&(r=n[this.pos++]))<<14,r<128?e:(e|=(127&(r=n[this.pos++]))<<21,r<128?e:function(t,e,r){var n,i,a=r.buf;if(n=(112&(i=a[r.pos++]))>>4,i<128)return so(t,n,e);if(n|=(127&(i=a[r.pos++]))<<3,i<128)return so(t,n,e);if(n|=(127&(i=a[r.pos++]))<<10,i<128)return so(t,n,e);if(n|=(127&(i=a[r.pos++]))<<17,i<128)return so(t,n,e);if(n|=(127&(i=a[r.pos++]))<<24,i<128)return so(t,n,e);if(n|=(1&(i=a[r.pos++]))<<31,i<128)return so(t,n,e);throw new Error(\\\"Expected varint not more than 10 bytes\\\")}(e|=(15&(r=n[this.pos]))<<28,t,this))))},readVarint64:function(){return this.readVarint(!0)},readSVarint:function(){var t=this.readVarint();return t%2==1?(t+1)/-2:t/2},readBoolean:function(){return Boolean(this.readVarint())},readString:function(){var t=this.readVarint()+this.pos,e=function(t,e,r){for(var n=\\\"\\\",i=e;i<r;){var a,o,s,l=t[i],c=null,u=l>239?4:l>223?3:l>191?2:1;if(i+u>r)break;1===u?l<128&&(c=l):2===u?128==(192&(a=t[i+1]))&&(c=(31&l)<<6|63&a)<=127&&(c=null):3===u?(a=t[i+1],o=t[i+2],128==(192&a)&&128==(192&o)&&((c=(15&l)<<12|(63&a)<<6|63&o)<=2047||c>=55296&&c<=57343)&&(c=null)):4===u&&(a=t[i+1],o=t[i+2],s=t[i+3],128==(192&a)&&128==(192&o)&&128==(192&s)&&((c=(15&l)<<18|(63&a)<<12|(63&o)<<6|63&s)<=65535||c>=1114112)&&(c=null)),null===c?(c=65533,u=1):c>65535&&(c-=65536,n+=String.fromCharCode(c>>>10&1023|55296),c=56320|1023&c),n+=String.fromCharCode(c),i+=u}return n}(this.buf,this.pos,t);return this.pos=t,e},readBytes:function(){var t=this.readVarint()+this.pos,e=this.buf.subarray(this.pos,t);return this.pos=t,e},readPackedVarint:function(t,e){var r=oo(this);for(t=t||[];this.pos<r;)t.push(this.readVarint(e));return t},readPackedSVarint:function(t){var e=oo(this);for(t=t||[];this.pos<e;)t.push(this.readSVarint());return t},readPackedBoolean:function(t){var e=oo(this);for(t=t||[];this.pos<e;)t.push(this.readBoolean());return t},readPackedFloat:function(t){var e=oo(this);for(t=t||[];this.pos<e;)t.push(this.readFloat());return t},readPackedDouble:function(t){var e=oo(this);for(t=t||[];this.pos<e;)t.push(this.readDouble());return t},readPackedFixed32:function(t){var e=oo(this);for(t=t||[];this.pos<e;)t.push(this.readFixed32());return t},readPackedSFixed32:function(t){var e=oo(this);for(t=t||[];this.pos<e;)t.push(this.readSFixed32());return t},readPackedFixed64:function(t){var e=oo(this);for(t=t||[];this.pos<e;)t.push(this.readFixed64());return t},readPackedSFixed64:function(t){var e=oo(this);for(t=t||[];this.pos<e;)t.push(this.readSFixed64());return t},skip:function(t){var e=7&t;if(e===ao.Varint)for(;this.buf[this.pos++]>127;);else if(e===ao.Bytes)this.pos=this.readVarint()+this.pos;else if(e===ao.Fixed32)this.pos+=4;else{if(e!==ao.Fixed64)throw new Error(\\\"Unimplemented type: \\\"+e);this.pos+=8}},writeTag:function(t,e){this.writeVarint(t<<3|e)},realloc:function(t){for(var e=this.length||16;e<this.pos+t;)e*=2;if(e!==this.length){var r=new Uint8Array(e);r.set(this.buf),this.buf=r,this.length=e}},finish:function(){return this.length=this.pos,this.pos=0,this.buf.subarray(0,this.length)},writeFixed32:function(t){this.realloc(4),bo(this.buf,t,this.pos),this.pos+=4},writeSFixed32:function(t){this.realloc(4),bo(this.buf,t,this.pos),this.pos+=4},writeFixed64:function(t){this.realloc(8),bo(this.buf,-1&t,this.pos),bo(this.buf,Math.floor(t*(1/4294967296)),this.pos+4),this.pos+=8},writeSFixed64:function(t){this.realloc(8),bo(this.buf,-1&t,this.pos),bo(this.buf,Math.floor(t*(1/4294967296)),this.pos+4),this.pos+=8},writeVarint:function(t){(t=+t||0)>268435455||t<0?function(t,e){var r,n;if(t>=0?(r=t%4294967296|0,n=t/4294967296|0):(n=~(-t/4294967296),4294967295^(r=~(-t%4294967296))?r=r+1|0:(r=0,n=n+1|0)),t>=0x10000000000000000||t<-0x10000000000000000)throw new Error(\\\"Given varint doesn't fit into 10 bytes\\\");e.realloc(10),function(t,e,r){r.buf[r.pos++]=127&t|128,t>>>=7,r.buf[r.pos++]=127&t|128,t>>>=7,r.buf[r.pos++]=127&t|128,t>>>=7,r.buf[r.pos++]=127&t|128,t>>>=7,r.buf[r.pos]=127&t}(r,0,e),function(t,e){var r=(7&t)<<4;e.buf[e.pos++]|=r|((t>>>=3)?128:0),t&&(e.buf[e.pos++]=127&t|((t>>>=7)?128:0),t&&(e.buf[e.pos++]=127&t|((t>>>=7)?128:0),t&&(e.buf[e.pos++]=127&t|((t>>>=7)?128:0),t&&(e.buf[e.pos++]=127&t|((t>>>=7)?128:0),t&&(e.buf[e.pos++]=127&t)))))}(n,e)}(t,this):(this.realloc(4),this.buf[this.pos++]=127&t|(t>127?128:0),t<=127||(this.buf[this.pos++]=127&(t>>>=7)|(t>127?128:0),t<=127||(this.buf[this.pos++]=127&(t>>>=7)|(t>127?128:0),t<=127||(this.buf[this.pos++]=t>>>7&127))))},writeSVarint:function(t){this.writeVarint(t<0?2*-t-1:2*t)},writeBoolean:function(t){this.writeVarint(Boolean(t))},writeString:function(t){t=String(t),this.realloc(4*t.length),this.pos++;var e=this.pos;this.pos=function(t,e,r){for(var n,i,a=0;a<e.length;a++){if((n=e.charCodeAt(a))>55295&&n<57344){if(!i){n>56319||a+1===e.length?(t[r++]=239,t[r++]=191,t[r++]=189):i=n;continue}if(n<56320){t[r++]=239,t[r++]=191,t[r++]=189,i=n;continue}n=i-55296<<10|n-56320|65536,i=null}else i&&(t[r++]=239,t[r++]=191,t[r++]=189,i=null);n<128?t[r++]=n:(n<2048?t[r++]=n>>6|192:(n<65536?t[r++]=n>>12|224:(t[r++]=n>>18|240,t[r++]=n>>12&63|128),t[r++]=n>>6&63|128),t[r++]=63&n|128)}return r}(this.buf,t,this.pos);var r=this.pos-e;r>=128&&lo(e,r,this),this.pos=e-1,this.writeVarint(r),this.pos+=r},writeFloat:function(t){this.realloc(4),no(this.buf,t,this.pos,!0,23,4),this.pos+=4},writeDouble:function(t){this.realloc(8),no(this.buf,t,this.pos,!0,52,8),this.pos+=8},writeBytes:function(t){var e=t.length;this.writeVarint(e),this.realloc(e);for(var r=0;r<e;r++)this.buf[this.pos++]=t[r]},writeRawMessage:function(t,e){this.pos++;var r=this.pos;t(e,this);var n=this.pos-r;n>=128&&lo(r,n,this),this.pos=r-1,this.writeVarint(n),this.pos+=n},writeMessage:function(t,e,r){this.writeTag(t,ao.Bytes),this.writeRawMessage(e,r)},writePackedVarint:function(t,e){this.writeMessage(t,co,e)},writePackedSVarint:function(t,e){this.writeMessage(t,uo,e)},writePackedBoolean:function(t,e){this.writeMessage(t,po,e)},writePackedFloat:function(t,e){this.writeMessage(t,fo,e)},writePackedDouble:function(t,e){this.writeMessage(t,ho,e)},writePackedFixed32:function(t,e){this.writeMessage(t,go,e)},writePackedSFixed32:function(t,e){this.writeMessage(t,vo,e)},writePackedFixed64:function(t,e){this.writeMessage(t,mo,e)},writePackedSFixed64:function(t,e){this.writeMessage(t,yo,e)},writeBytesField:function(t,e){this.writeTag(t,ao.Bytes),this.writeBytes(e)},writeFixed32Field:function(t,e){this.writeTag(t,ao.Fixed32),this.writeFixed32(e)},writeSFixed32Field:function(t,e){this.writeTag(t,ao.Fixed32),this.writeSFixed32(e)},writeFixed64Field:function(t,e){this.writeTag(t,ao.Fixed64),this.writeFixed64(e)},writeSFixed64Field:function(t,e){this.writeTag(t,ao.Fixed64),this.writeSFixed64(e)},writeVarintField:function(t,e){this.writeTag(t,ao.Varint),this.writeVarint(e)},writeSVarintField:function(t,e){this.writeTag(t,ao.Varint),this.writeSVarint(e)},writeStringField:function(t,e){this.writeTag(t,ao.Bytes),this.writeString(e)},writeFloatField:function(t,e){this.writeTag(t,ao.Fixed32),this.writeFloat(e)},writeDoubleField:function(t,e){this.writeTag(t,ao.Fixed64),this.writeDouble(e)},writeBooleanField:function(t,e){this.writeVarintField(t,Boolean(e))}};var wo=3;function ko(t,e,r){1===t&&r.readMessage(To,e)}function To(t,e,r){if(3===t){var n=r.readMessage(Ao,{}),i=n.id,a=n.bitmap,o=n.width,s=n.height,l=n.left,c=n.top,u=n.advance;e.push({id:i,bitmap:new ci({width:o+2*wo,height:s+2*wo},a),metrics:{width:o,height:s,left:l,top:c,advance:u}})}}function Ao(t,e,r){1===t?e.id=r.readVarint():2===t?e.bitmap=r.readBytes():3===t?e.width=r.readVarint():4===t?e.height=r.readVarint():5===t?e.left=r.readSVarint():6===t?e.top=r.readSVarint():7===t&&(e.advance=r.readVarint())}var Mo=wo,So=function(t,e,r){this.target=t,this.parent=e,this.mapId=r,this.callbacks={},this.callbackID=0,g([\\\"receive\\\"],this),this.target.addEventListener(\\\"message\\\",this.receive,!1)};So.prototype.send=function(t,e,r,n){var i=r?this.mapId+\\\":\\\"+this.callbackID++:null;r&&(this.callbacks[i]=r);var a=[];this.target.postMessage({targetMapId:n,sourceMapId:this.mapId,type:t,id:String(i),data:gr(e,a)},a)},So.prototype.receive=function(t){var e,r=this,n=t.data,i=n.id;if(!n.targetMapId||this.mapId===n.targetMapId){var a=function(t,e){var n=[];r.target.postMessage({sourceMapId:r.mapId,type:\\\"<response>\\\",id:String(i),error:t?gr(t):null,data:gr(e,n)},n)};if(\\\"<response>\\\"===n.type)e=this.callbacks[n.id],delete this.callbacks[n.id],e&&n.error?e(vr(n.error)):e&&e(null,vr(n.data));else if(void 0!==n.id&&this.parent[n.type])this.parent[n.type](n.sourceMapId,vr(n.data),a);else if(void 0!==n.id&&this.parent.getWorkerSource){var o=n.type.split(\\\".\\\");this.parent.getWorkerSource(n.sourceMapId,o[0],o[1])[o[2]](vr(n.data),a)}else this.parent[n.type](vr(n.data))}},So.prototype.remove=function(){this.target.removeEventListener(\\\"message\\\",this.receive,!1)};var Eo=n(i(function(t,e){!function(t){function e(t,e,n){var i=r(256*t,256*(e=Math.pow(2,n)-e-1),n),a=r(256*(t+1),256*(e+1),n);return i[0]+\\\",\\\"+i[1]+\\\",\\\"+a[0]+\\\",\\\"+a[1]}function r(t,e,r){var n=2*Math.PI*6378137/256/Math.pow(2,r);return[t*n-2*Math.PI*6378137/2,e*n-2*Math.PI*6378137/2]}t.getURL=function(t,r,n,i,a,o){return o=o||{},t+\\\"?\\\"+[\\\"bbox=\\\"+e(n,i,a),\\\"format=\\\"+(o.format||\\\"image/png\\\"),\\\"service=\\\"+(o.service||\\\"WMS\\\"),\\\"version=\\\"+(o.version||\\\"1.1.1\\\"),\\\"request=\\\"+(o.request||\\\"GetMap\\\"),\\\"srs=\\\"+(o.srs||\\\"EPSG:3857\\\"),\\\"width=\\\"+(o.width||256),\\\"height=\\\"+(o.height||256),\\\"layers=\\\"+r].join(\\\"&\\\")},t.getTileBBox=e,t.getMercCoords=r,Object.defineProperty(t,\\\"__esModule\\\",{value:!0})}(e)})),Co=function(t,e,r){this.z=t,this.x=e,this.y=r,this.key=Oo(0,t,e,r)};Co.prototype.equals=function(t){return this.z===t.z&&this.x===t.x&&this.y===t.y},Co.prototype.url=function(t,e){var r=Eo.getTileBBox(this.x,this.y,this.z),n=function(t,e,r){for(var n,i=\\\"\\\",a=t;a>0;a--)i+=(e&(n=1<<a-1)?1:0)+(r&n?2:0);return i}(this.z,this.x,this.y);return t[(this.x+this.y)%t.length].replace(\\\"{prefix}\\\",(this.x%16).toString(16)+(this.y%16).toString(16)).replace(\\\"{z}\\\",String(this.z)).replace(\\\"{x}\\\",String(this.x)).replace(\\\"{y}\\\",String(\\\"tms\\\"===e?Math.pow(2,this.z)-this.y-1:this.y)).replace(\\\"{quadkey}\\\",n).replace(\\\"{bbox-epsg-3857}\\\",r)};var Lo=function(t,e){this.wrap=t,this.canonical=e,this.key=Oo(t,e.z,e.x,e.y)},zo=function(t,e,r,n,i){this.overscaledZ=t,this.wrap=e,this.canonical=new Co(r,+n,+i),this.key=Oo(e,t,n,i)};function Oo(t,e,r,n){(t*=2)<0&&(t=-1*t-1);var i=1<<e;return 32*(i*i*t+i*n+r)+e}zo.prototype.equals=function(t){return this.overscaledZ===t.overscaledZ&&this.wrap===t.wrap&&this.canonical.equals(t.canonical)},zo.prototype.scaledTo=function(t){var e=this.canonical.z-t;return t>this.canonical.z?new zo(t,this.wrap,this.canonical.z,this.canonical.x,this.canonical.y):new zo(t,this.wrap,t,this.canonical.x>>e,this.canonical.y>>e)},zo.prototype.isChildOf=function(t){var e=this.canonical.z-t.canonical.z;return 0===t.overscaledZ||t.overscaledZ<this.overscaledZ&&t.canonical.x===this.canonical.x>>e&&t.canonical.y===this.canonical.y>>e},zo.prototype.children=function(t){if(this.overscaledZ>=t)return[new zo(this.overscaledZ+1,this.wrap,this.canonical.z,this.canonical.x,this.canonical.y)];var e=this.canonical.z+1,r=2*this.canonical.x,n=2*this.canonical.y;return[new zo(e,this.wrap,e,r,n),new zo(e,this.wrap,e,r+1,n),new zo(e,this.wrap,e,r,n+1),new zo(e,this.wrap,e,r+1,n+1)]},zo.prototype.isLessThan=function(t){return this.wrap<t.wrap||!(this.wrap>t.wrap)&&(this.overscaledZ<t.overscaledZ||!(this.overscaledZ>t.overscaledZ)&&(this.canonical.x<t.canonical.x||!(this.canonical.x>t.canonical.x)&&this.canonical.y<t.canonical.y))},zo.prototype.wrapped=function(){return new zo(this.overscaledZ,0,this.canonical.z,this.canonical.x,this.canonical.y)},zo.prototype.unwrapTo=function(t){return new zo(this.overscaledZ,t,this.canonical.z,this.canonical.x,this.canonical.y)},zo.prototype.overscaleFactor=function(){return Math.pow(2,this.overscaledZ-this.canonical.z)},zo.prototype.toUnwrapped=function(){return new Lo(this.wrap,this.canonical)},zo.prototype.toString=function(){return this.overscaledZ+\\\"/\\\"+this.canonical.x+\\\"/\\\"+this.canonical.y},zo.prototype.toCoordinate=function(){return new s(this.canonical.x+Math.pow(2,this.wrap),this.canonical.y,this.canonical.z)},pr(\\\"CanonicalTileID\\\",Co),pr(\\\"OverscaledTileID\\\",zo,{omit:[\\\"posMatrix\\\"]});var Io=function(t,e,r){if(t<=0)throw new RangeError(\\\"Level must have positive dimension\\\");this.dim=t,this.border=e,this.stride=this.dim+2*this.border,this.data=r||new Int32Array((this.dim+2*this.border)*(this.dim+2*this.border))};Io.prototype.set=function(t,e,r){this.data[this._idx(t,e)]=r+65536},Io.prototype.get=function(t,e){return this.data[this._idx(t,e)]-65536},Io.prototype._idx=function(t,e){if(t<-this.border||t>=this.dim+this.border||e<-this.border||e>=this.dim+this.border)throw new RangeError(\\\"out of range source coordinates for DEM data\\\");return(e+this.border)*this.stride+(t+this.border)},pr(\\\"Level\\\",Io);var Do=function(t,e,r){this.uid=t,this.scale=e||1,this.level=r||new Io(256,512),this.loaded=!!r};Do.prototype.loadFromImage=function(t,e){if(t.height!==t.width)throw new RangeError(\\\"DEM tiles must be square\\\");if(e&&\\\"mapbox\\\"!==e&&\\\"terrarium\\\"!==e)return _('\\\"'+e+'\\\" is not a valid encoding type. Valid types include \\\"mapbox\\\" and \\\"terrarium\\\".');var r=this.level=new Io(t.width,t.width/2),n=t.data;this._unpackData(r,n,e||\\\"mapbox\\\");for(var i=0;i<r.dim;i++)r.set(-1,i,r.get(0,i)),r.set(r.dim,i,r.get(r.dim-1,i)),r.set(i,-1,r.get(i,0)),r.set(i,r.dim,r.get(i,r.dim-1));r.set(-1,-1,r.get(0,0)),r.set(r.dim,-1,r.get(r.dim-1,0)),r.set(-1,r.dim,r.get(0,r.dim-1)),r.set(r.dim,r.dim,r.get(r.dim-1,r.dim-1)),this.loaded=!0},Do.prototype._unpackMapbox=function(t,e,r){return(256*t*256+256*e+r)/10-1e4},Do.prototype._unpackTerrarium=function(t,e,r){return 256*t+e+r/256-32768},Do.prototype._unpackData=function(t,e,r){for(var n={mapbox:this._unpackMapbox,terrarium:this._unpackTerrarium}[r],i=0;i<t.dim;i++)for(var a=0;a<t.dim;a++){var o=4*(i*t.dim+a);t.set(a,i,this.scale*n(e[o],e[o+1],e[o+2]))}},Do.prototype.getPixels=function(){return new ui({width:this.level.dim+2*this.level.border,height:this.level.dim+2*this.level.border},new Uint8Array(this.level.data.buffer))},Do.prototype.backfillBorder=function(t,e,r){var n=this.level,i=t.level;if(n.dim!==i.dim)throw new Error(\\\"level mismatch (dem dimension)\\\");var a=e*n.dim,o=e*n.dim+n.dim,s=r*n.dim,l=r*n.dim+n.dim;switch(e){case-1:a=o-1;break;case 1:o=a+1}switch(r){case-1:s=l-1;break;case 1:l=s+1}for(var c=h(a,-n.border,n.dim+n.border),u=h(o,-n.border,n.dim+n.border),f=h(s,-n.border,n.dim+n.border),p=h(l,-n.border,n.dim+n.border),d=-e*n.dim,g=-r*n.dim,v=f;v<p;v++)for(var m=c;m<u;m++)n.set(m,v,i.get(m+d,v+g))},pr(\\\"DEMData\\\",Do);var Po=function(t){this._stringToNumber={},this._numberToString=[];for(var e=0;e<t.length;e++){var r=t[e];this._stringToNumber[r]=e,this._numberToString[e]=r}};Po.prototype.encode=function(t){return this._stringToNumber[t]},Po.prototype.decode=function(t){return this._numberToString[t]};var Ro=function(t,e,r,n){this.type=\\\"Feature\\\",this._vectorTileFeature=t,t._z=e,t._x=r,t._y=n,this.properties=t.properties,null!=t.id&&(this.id=t.id)},Fo={geometry:{configurable:!0}};Fo.geometry.get=function(){return void 0===this._geometry&&(this._geometry=this._vectorTileFeature.toGeoJSON(this._vectorTileFeature._x,this._vectorTileFeature._y,this._vectorTileFeature._z).geometry),this._geometry},Fo.geometry.set=function(t){this._geometry=t},Ro.prototype.toJSON=function(){var t={geometry:this.geometry};for(var e in this)\\\"_geometry\\\"!==e&&\\\"_vectorTileFeature\\\"!==e&&(t[e]=this[e]);return t},Object.defineProperties(Ro.prototype,Fo);var Bo=function(t,e,r){this.tileID=t,this.x=t.canonical.x,this.y=t.canonical.y,this.z=t.canonical.z,this.grid=e||new lr(Pn,16,0),this.featureIndexArray=r||new Tn};function No(t,e){return e-t}Bo.prototype.insert=function(t,e,r,n,i){var a=this.featureIndexArray.length;this.featureIndexArray.emplaceBack(r,n,i);for(var o=0;o<e.length;o++){for(var s=e[o],l=[1/0,1/0,-1/0,-1/0],c=0;c<s.length;c++){var u=s[c];l[0]=Math.min(l[0],u.x),l[1]=Math.min(l[1],u.y),l[2]=Math.max(l[2],u.x),l[3]=Math.max(l[3],u.y)}l[0]<Pn&&l[1]<Pn&&l[2]>=0&&l[3]>=0&&this.grid.insert(a,l[0],l[1],l[2],l[3])}},Bo.prototype.loadVTLayers=function(){return this.vtLayers||(this.vtLayers=new ga.VectorTile(new io(this.rawTileData)).layers,this.sourceLayerCoder=new Po(this.vtLayers?Object.keys(this.vtLayers).sort():[\\\"_geojsonTileLayer\\\"])),this.vtLayers},Bo.prototype.query=function(t,e){var r=this;this.loadVTLayers();for(var n=t.params||{},i=Pn/t.tileSize/t.scale,a=Re(n.filter),o=t.queryGeometry,s=t.queryPadding*i,l=1/0,c=1/0,u=-1/0,f=-1/0,h=0;h<o.length;h++)for(var p=o[h],d=0;d<p.length;d++){var g=p[d];l=Math.min(l,g.x),c=Math.min(c,g.y),u=Math.max(u,g.x),f=Math.max(f,g.y)}var v=this.grid.query(l-s,c-s,u+s,f+s);v.sort(No);for(var m,y={},x=function(s){var l=v[s];if(l!==m){m=l;var c=r.featureIndexArray.get(l),u=null;r.loadMatchingFeature(y,c.bucketIndex,c.sourceLayerIndex,c.featureIndex,a,n.layers,e,function(e,n){return u||(u=Fn(e)),n.queryIntersectsFeature(o,e,u,r.z,t.transform,i,t.posMatrix)})}},b=0;b<v.length;b++)x(b);return y},Bo.prototype.loadMatchingFeature=function(t,e,r,n,i,a,o,s){var l=this.bucketLayerIDs[e];if(!a||function(t,e){for(var r=0;r<t.length;r++)if(e.indexOf(t[r])>=0)return!0;return!1}(a,l)){var c=this.sourceLayerCoder.decode(r),u=this.vtLayers[c].feature(n);if(i(new Lr(this.tileID.overscaledZ),u))for(var f=0;f<l.length;f++){var h=l[f];if(!(a&&a.indexOf(h)<0)){var p=o[h];if(p&&(!s||s(u,p))){var d=new Ro(u,this.z,this.x,this.y);d.layer=p.serialize();var g=t[h];void 0===g&&(g=t[h]=[]),g.push({featureIndex:n,feature:d})}}}}},Bo.prototype.lookupSymbolFeatures=function(t,e,r,n,i,a){var o={};this.loadVTLayers();for(var s=Re(n),l=0,c=t;l<c.length;l+=1){var u=c[l];this.loadMatchingFeature(o,e,r,u,s,i,a)}return o},Bo.prototype.hasLayer=function(t){for(var e=0,r=this.bucketLayerIDs;e<r.length;e+=1)for(var n=0,i=r[e];n<i.length;n+=1)if(t===i[n])return!0;return!1},pr(\\\"FeatureIndex\\\",Bo,{omit:[\\\"rawTileData\\\",\\\"sourceLayerCoder\\\"]});var jo={horizontal:1,vertical:2,horizontalOnly:3},Vo={9:!0,10:!0,11:!0,12:!0,13:!0,32:!0},Uo={};function Ho(t,e,r,n){var i=Math.pow(t-e,2);return n?t<e?i/2:2*i:i+Math.abs(r)*r}function qo(t,e){var r=0;return 10===t&&(r-=1e4),40!==t&&65288!==t||(r+=50),41!==e&&65289!==e||(r+=50),r}function Go(t,e,r,n,i,a){for(var o=null,s=Ho(e,r,i,a),l=0,c=n;l<c.length;l+=1){var u=c[l],f=Ho(e-u.x,r,i,a)+u.badness;f<=s&&(o=u,s=f)}return{index:t,x:e,priorBreak:o,badness:s}}function Yo(t,e,r,n){if(!r)return[];if(!t)return[];for(var i,a=[],o=function(t,e,r,n){for(var i=0,a=0;a<t.length;a++){var o=n[t.charCodeAt(a)];o&&(i+=o.metrics.advance+e)}return i/Math.max(1,Math.ceil(i/r))}(t,e,r,n),s=0,l=0;l<t.length;l++){var c=t.charCodeAt(l),u=n[c];u&&!Vo[c]&&(s+=u.metrics.advance+e),l<t.length-1&&(Uo[c]||!((i=c)<11904)&&(yr[\\\"Bopomofo Extended\\\"](i)||yr.Bopomofo(i)||yr[\\\"CJK Compatibility Forms\\\"](i)||yr[\\\"CJK Compatibility Ideographs\\\"](i)||yr[\\\"CJK Compatibility\\\"](i)||yr[\\\"CJK Radicals Supplement\\\"](i)||yr[\\\"CJK Strokes\\\"](i)||yr[\\\"CJK Symbols and Punctuation\\\"](i)||yr[\\\"CJK Unified Ideographs Extension A\\\"](i)||yr[\\\"CJK Unified Ideographs\\\"](i)||yr[\\\"Enclosed CJK Letters and Months\\\"](i)||yr[\\\"Halfwidth and Fullwidth Forms\\\"](i)||yr.Hiragana(i)||yr[\\\"Ideographic Description Characters\\\"](i)||yr[\\\"Kangxi Radicals\\\"](i)||yr[\\\"Katakana Phonetic Extensions\\\"](i)||yr.Katakana(i)||yr[\\\"Vertical Forms\\\"](i)||yr[\\\"Yi Radicals\\\"](i)||yr[\\\"Yi Syllables\\\"](i)))&&a.push(Go(l+1,s,o,a,qo(c,t.charCodeAt(l+1)),!1))}return function t(e){return e?t(e.priorBreak).concat(e.index):[]}(Go(t.length,s,o,a,0,!0))}function Wo(t){var e=.5,r=.5;switch(t){case\\\"right\\\":case\\\"top-right\\\":case\\\"bottom-right\\\":e=1;break;case\\\"left\\\":case\\\"top-left\\\":case\\\"bottom-left\\\":e=0}switch(t){case\\\"bottom\\\":case\\\"bottom-right\\\":case\\\"bottom-left\\\":r=1;break;case\\\"top\\\":case\\\"top-right\\\":case\\\"top-left\\\":r=0}return{horizontalAlign:e,verticalAlign:r}}function Xo(t,e,r,n,i){if(i){var a=e[t[n].glyph];if(a)for(var o=a.metrics.advance,s=(t[n].x+o)*i,l=r;l<=n;l++)t[l].x-=s}}Uo[10]=!0,Uo[32]=!0,Uo[38]=!0,Uo[40]=!0,Uo[41]=!0,Uo[43]=!0,Uo[45]=!0,Uo[47]=!0,Uo[173]=!0,Uo[183]=!0,Uo[8203]=!0,Uo[8208]=!0,Uo[8211]=!0,Uo[8231]=!0,e.commonjsGlobal=r,e.unwrapExports=n,e.createCommonjsModule=i,e.default=self,e.default$1=l,e.getJSON=function(t,e){var r=M(t);return r.setRequestHeader(\\\"Accept\\\",\\\"application/json\\\"),r.onerror=function(){e(new Error(r.statusText))},r.onload=function(){if(r.status>=200&&r.status<300&&r.response){var n;try{n=JSON.parse(r.response)}catch(t){return e(t)}e(null,n)}else 401===r.status&&t.url.match(/mapbox.com/)?e(new A(r.statusText+\\\": you may have provided an invalid Mapbox access token. See https://www.mapbox.com/api-documentation/#access-tokens\\\",r.status,t.url)):e(new A(r.statusText,r.status,t.url))},r.send(),r},e.getImage=function(t,e){return S(t,function(t,r){if(t)e(t);else if(r){var n=new self.Image,i=self.URL||self.webkitURL;n.onload=function(){e(null,n),i.revokeObjectURL(n.src)};var a=new self.Blob([new Uint8Array(r.data)],{type:\\\"image/png\\\"});n.cacheControl=r.cacheControl,n.expires=r.expires,n.src=r.data.byteLength?i.createObjectURL(a):\\\"data:image/png;base64,iVBORw0KGgoAAAANSUhEUgAAAAEAAAABCAYAAAAfFcSJAAAAC0lEQVQYV2NgAAIAAAUAAarVyFEAAAAASUVORK5CYII=\\\"}})},e.ResourceType=T,e.RGBAImage=ui,e.default$2=Ka,e.ImagePosition=Qa,e.getArrayBuffer=S,e.default$3=function(t){return new io(t).readFields(ko,[])},e.default$4=yr,e.asyncAll=function(t,e,r){if(!t.length)return r(null,[]);var n=t.length,i=new Array(t.length),a=null;t.forEach(function(t,o){e(t,function(t,e){t&&(a=t),i[o]=e,0==--n&&r(a,i)})})},e.AlphaImage=ci,e.default$5=I,e.endsWith=v,e.extend=p,e.sphericalToCartesian=function(t){var e=t[0],r=t[1],n=t[2];return r+=90,r*=Math.PI/180,n*=Math.PI/180,{x:e*Math.cos(r)*Math.sin(n),y:e*Math.sin(r)*Math.sin(n),z:e*Math.cos(n)}},e.Evented=O,e.validateStyle=nr,e.validateLight=ir,e.emitValidationErrors=sr,e.default$6=tt,e.number=wt,e.Properties=Hr,e.Transitionable=Ir,e.Transitioning=Pr,e.PossiblyEvaluated=Br,e.DataConstantProperty=Nr,e.warnOnce=_,e.uniqueId=function(){return d++},e.default$7=So,e.pick=function(t,e){for(var r={},n=0;n<e.length;n++){var i=e[n];i in t&&(r[i]=t[i])}return r},e.wrap=function(t,e,r){var n=r-e,i=((t-e)%n+n)%n+e;return i===e?r:i},e.clamp=h,e.Event=L,e.ErrorEvent=z,e.OverscaledTileID=zo,e.default$8=Pn,e.createLayout=Xr,e.getCoordinatesCenter=function(t){for(var e=1/0,r=1/0,n=-1/0,i=-1/0,a=0;a<t.length;a++)e=Math.min(e,t[a].column),r=Math.min(r,t[a].row),n=Math.max(n,t[a].column),i=Math.max(i,t[a].row);var o=n-e,l=i-r,c=Math.max(o,l),u=Math.max(0,Math.floor(-Math.log(c)/Math.LN2));return new s((e+n)/2,(r+i)/2,0).zoomTo(u)},e.CanonicalTileID=Co,e.RasterBoundsArray=Jr,e.getVideo=function(t,e){var r,n,i=self.document.createElement(\\\"video\\\");i.onloadstart=function(){e(null,i)};for(var a=0;a<t.length;a++){var o=self.document.createElement(\\\"source\\\");r=t[a],n=void 0,(n=self.document.createElement(\\\"a\\\")).href=r,(n.protocol!==self.document.location.protocol||n.host!==self.document.location.host)&&(i.crossOrigin=\\\"Anonymous\\\"),o.src=t[a],i.appendChild(o)}return i},e.default$9=D,e.bindAll=g,e.default$10=function t(e,r){if(Array.isArray(e)){if(!Array.isArray(r)||e.length!==r.length)return!1;for(var n=0;n<e.length;n++)if(!t(e[n],r[n]))return!1;return!0}if(\\\"object\\\"==typeof e&&null!==e&&null!==r){if(\\\"object\\\"!=typeof r)return!1;if(Object.keys(e).length!==Object.keys(r).length)return!1;for(var i in e)if(!t(e[i],r[i]))return!1;return!0}return e===r},e.parseCacheControl=function(t){var e={};if(t.replace(/(?:^|(?:\\\\s*\\\\,\\\\s*))([^\\\\x00-\\\\x20\\\\(\\\\)<>@\\\\,;\\\\:\\\\\\\\\\\"\\\\/\\\\[\\\\]\\\\?\\\\=\\\\{\\\\}\\\\x7F]+)(?:\\\\=(?:([^\\\\x00-\\\\x20\\\\(\\\\)<>@\\\\,;\\\\:\\\\\\\\\\\"\\\\/\\\\[\\\\]\\\\?\\\\=\\\\{\\\\}\\\\x7F]+)|(?:\\\\\\\"((?:[^\\\"\\\\\\\\]|\\\\\\\\.)*)\\\\\\\")))?/g,function(t,r,n,i){var a=n||i;return e[r]=!a||a.toLowerCase(),\\\"\\\"}),e[\\\"max-age\\\"]){var r=parseInt(e[\\\"max-age\\\"],10);isNaN(r)?delete e[\\\"max-age\\\"]:e[\\\"max-age\\\"]=r}return e},e.default$11=Bo,e.default$12=Ro,e.default$13=Re,e.default$14=qa,e.CollisionBoxArray=vn,e.default$15=Mn,e.TriangleIndexArray=fn,e.default$16=Lr,e.default$17=s,e.keysDifference=function(t,e){var r=[];for(var n in t)n in e||r.push(n);return r},e.default$18=[\\\"type\\\",\\\"source\\\",\\\"source-layer\\\",\\\"minzoom\\\",\\\"maxzoom\\\",\\\"filter\\\",\\\"layout\\\"],e.mat4=ri,e.vec4=ei,e.getSizeData=Fa,e.evaluateSizeForFeature=function(t,e,r){var n=e;return\\\"source\\\"===t.functionType?r.lowerSize/10:\\\"composite\\\"===t.functionType?wt(r.lowerSize/10,r.upperSize/10,n.uSizeT):n.uSize},e.evaluateSizeForZoom=function(t,e,r){if(\\\"constant\\\"===t.functionType)return{uSizeT:0,uSize:t.layoutSize};if(\\\"source\\\"===t.functionType)return{uSizeT:0,uSize:0};if(\\\"camera\\\"===t.functionType){var n=t.propertyValue,i=t.zoomRange,a=t.sizeRange,o=h(Se(n,r.specification).interpolationFactor(e,i.min,i.max),0,1);return{uSizeT:0,uSize:a.min+o*(a.max-a.min)}}var s=t.propertyValue,l=t.zoomRange;return{uSizeT:h(Se(s,r.specification).interpolationFactor(e,l.min,l.max),0,1),uSize:0}},e.addDynamicAttributes=Va,e.default$19=Ya,e.WritingMode=jo,e.multiPolygonIntersectsBufferedPoint=jn,e.multiPolygonIntersectsMultiPolygon=Vn,e.multiPolygonIntersectsBufferedMultiLine=Un,e.polygonIntersectsPolygon=function(t,e){for(var r=0;r<t.length;r++)if(Zn(e,t[r]))return!0;for(var n=0;n<e.length;n++)if(Zn(t,e[n]))return!0;return!!qn(t,e)},e.distToSegmentSquared=Wn,e.default$20=ti,e.default$21=qr,e.default$22=function(t){return new Ja[t.type](t)},e.clone=x,e.filterObject=y,e.mapObject=m,e.registerForPluginAvailability=function(t){return Mr?t({pluginURL:Mr,completionCallback:Tr}):Er.once(\\\"pluginAvailable\\\",t),t},e.evented=Er,e.default$23=mr,e.default$24=On,e.PosArray=$r,e.UnwrappedTileID=Lo,e.ease=f,e.bezier=u,e.setRTLTextPlugin=function(t,e){if(Ar)throw new Error(\\\"setRTLTextPlugin cannot be called multiple times.\\\");Ar=!0,Mr=t,Tr=function(t){t?(Ar=!1,Mr=null,e&&e(t)):Sr=!0},Er.fire(new L(\\\"pluginAvailable\\\",{pluginURL:Mr,completionCallback:Tr}))},e.values=function(t){var e=[];for(var r in t)e.push(t[r]);return e},e.default$25=Ra,e.register=pr,e.GLYPH_PBF_BORDER=Mo,e.shapeText=function(t,e,r,n,i,a,o,s,l,c){var u=t.trim();c===jo.vertical&&(u=function(t){for(var e=\\\"\\\",r=0;r<t.length;r++){var n=t.charCodeAt(r+1)||null,i=t.charCodeAt(r-1)||null;n&&wr(n)&&!Pa[t[r+1]]||i&&wr(i)&&!Pa[t[r-1]]||!Pa[t[r]]?e+=t[r]:e+=Pa[t[r]]}return e}(u));var f=[],h={positionedGlyphs:f,text:u,top:s[1],bottom:s[1],left:s[0],right:s[0],writingMode:c},p=Cr.processBidirectionalText;return function(t,e,r,n,i,a,o,s,l){for(var c=0,u=-17,f=0,h=t.positionedGlyphs,p=\\\"right\\\"===a?1:\\\"left\\\"===a?0:.5,d=0,g=r;d<g.length;d+=1){var v=g[d];if((v=v.trim()).length){for(var m=h.length,y=0;y<v.length;y++){var x=v.charCodeAt(y),b=e[x];b&&(_r(x)&&o!==jo.horizontal?(h.push({glyph:x,x:c,y:0,vertical:!0}),c+=l+s):(h.push({glyph:x,x:c,y:u,vertical:!1}),c+=b.metrics.advance+s))}if(h.length!==m){var _=c-s;f=Math.max(_,f),Xo(h,e,m,h.length-1,p)}c=0,u+=n}else u+=n}var w=Wo(i),k=w.horizontalAlign,T=w.verticalAlign;!function(t,e,r,n,i,a,o){for(var s=(e-r)*i,l=(-n*o+.5)*a,c=0;c<t.length;c++)t[c].x+=s,t[c].y+=l}(h,p,k,T,f,n,r.length);var A=r.length*n;t.top+=-T*A,t.bottom=t.top+A,t.left+=-k*f,t.right=t.left+f}(h,e,p?p(u,Yo(u,o,r,e)):function(t,e){for(var r=[],n=0,i=0,a=e;i<a.length;i+=1){var o=a[i];r.push(t.substring(n,o)),n=o}return n<t.length&&r.push(t.substring(n,t.length)),r}(u,Yo(u,o,r,e)),n,i,a,c,o,l),!!f.length&&h},e.shapeIcon=function(t,e,r){var n=Wo(r),i=n.horizontalAlign,a=n.verticalAlign,o=e[0],s=e[1],l=o-t.displaySize[0]*i,c=l+t.displaySize[0],u=s-t.displaySize[1]*a;return{image:t,top:u,bottom:u+t.displaySize[1],left:l,right:c}},e.allowsVerticalWritingMode=xr,e.allowsLetterSpacing=function(t){for(var e=0,r=t;e<r.length;e+=1)if(!br(r[e].charCodeAt(0)))return!1;return!0},e.default$26=Wi,e.default$27=Po,e.default$28=eo,e.default$29=ga,e.default$30=io,e.default$31=Do,e.__moduleExports=ga,e.default$32=l,e.__moduleExports$1=io,e.plugin=Cr}),i(0,function(t){function e(t){var r=typeof t;if(\\\"number\\\"===r||\\\"boolean\\\"===r||\\\"string\\\"===r||null==t)return JSON.stringify(t);if(Array.isArray(t)){for(var n=\\\"[\\\",i=0,a=t;i<a.length;i+=1)n+=e(a[i])+\\\",\\\";return n+\\\"]\\\"}for(var o=Object.keys(t).sort(),s=\\\"{\\\",l=0;l<o.length;l++)s+=JSON.stringify(o[l])+\\\":\\\"+e(t[o[l]])+\\\",\\\";return s+\\\"}\\\"}function r(r){for(var n=\\\"\\\",i=0,a=t.default$18;i<a.length;i+=1)n+=\\\"/\\\"+e(r[a[i]]);return n}var n=function(t){t&&this.replace(t)};function i(t,e,r,n,i){if(void 0===e.segment)return!0;for(var a=e,o=e.segment+1,s=0;s>-r/2;){if(--o<0)return!1;s-=t[o].dist(a),a=t[o]}s+=t[o].dist(t[o+1]),o++;for(var l=[],c=0;s<r/2;){var u=t[o-1],f=t[o],h=t[o+1];if(!h)return!1;var p=u.angleTo(f)-f.angleTo(h);for(p=Math.abs((p+3*Math.PI)%(2*Math.PI)-Math.PI),l.push({distance:s,angleDelta:p}),c+=p;s-l[0].distance>n;)c-=l.shift().angleDelta;if(c>i)return!1;o++,s+=f.dist(h)}return!0}function a(e,r,n,a,o,s,l,c,u){var f=a?.6*s*l:0,h=Math.max(a?a.right-a.left:0,o?o.right-o.left:0),p=0===e[0].x||e[0].x===u||0===e[0].y||e[0].y===u;return r-h*l<r/4&&(r=h*l+r/4),function e(r,n,a,o,s,l,c,u,f){for(var h=l/2,p=0,d=0;d<r.length-1;d++)p+=r[d].dist(r[d+1]);for(var g=0,v=n-a,m=[],y=0;y<r.length-1;y++){for(var x=r[y],b=r[y+1],_=x.dist(b),w=b.angleTo(x);v+a<g+_;){var k=((v+=a)-g)/_,T=t.number(x.x,b.x,k),A=t.number(x.y,b.y,k);if(T>=0&&T<f&&A>=0&&A<f&&v-h>=0&&v+h<=p){var M=new t.default$25(T,A,w,y);M._round(),o&&!i(r,M,l,o,s)||m.push(M)}}g+=_}return u||m.length||c||(m=e(r,g/2,a,o,s,l,c,!0,f)),m}(e,p?r/2*c%r:(h/2+2*s)*l*c%r,r,f,n,h*l,p,!1,u)}n.prototype.replace=function(t){this._layerConfigs={},this._layers={},this.update(t,[])},n.prototype.update=function(e,n){for(var i=this,a=0,o=e;a<o.length;a+=1){var s=o[a];i._layerConfigs[s.id]=s;var l=i._layers[s.id]=t.default$22(s);l._featureFilter=t.default$13(l.filter)}for(var c=0,u=n;c<u.length;c+=1){var f=u[c];delete i._layerConfigs[f],delete i._layers[f]}this.familiesBySource={};for(var h=0,p=function(t){for(var e={},n=0;n<t.length;n++){var i=r(t[n]),a=e[i];a||(a=e[i]=[]),a.push(t[n])}var o=[];for(var s in e)o.push(e[s]);return o}(t.values(this._layerConfigs));h<p.length;h+=1){var d=p[h].map(function(t){return i._layers[t.id]}),g=d[0];if(\\\"none\\\"!==g.visibility){var v=g.source||\\\"\\\",m=i.familiesBySource[v];m||(m=i.familiesBySource[v]={});var y=g.sourceLayer||\\\"_geojsonTileLayer\\\",x=m[y];x||(x=m[y]=[]),x.push(d)}}};var o=function(){this.opacity=0,this.targetOpacity=0,this.time=0};o.prototype.clone=function(){var t=new o;return t.opacity=this.opacity,t.targetOpacity=this.targetOpacity,t.time=this.time,t},t.register(\\\"OpacityState\\\",o);var s=function(t,e,r,n,i,a,o,s,l,c,u){var f=o.top*s-l,h=o.bottom*s+l,p=o.left*s-l,d=o.right*s+l;if(this.boxStartIndex=t.length,c){var g=h-f,v=d-p;g>0&&(g=Math.max(10*s,g),this._addLineCollisionCircles(t,e,r,r.segment,v,g,n,i,a,u))}else t.emplaceBack(r.x,r.y,p,f,d,h,n,i,a,0,0);this.boxEndIndex=t.length};s.prototype._addLineCollisionCircles=function(t,e,r,n,i,a,o,s,l,c){var u=a/2,f=Math.floor(i/u),h=1+.4*Math.log(c)/Math.LN2,p=Math.floor(f*h/2),d=-a/2,g=r,v=n+1,m=d,y=-i/2,x=y-i/4;do{if(--v<0){if(m>y)return;v=0;break}m-=e[v].dist(g),g=e[v]}while(m>x);for(var b=e[v].dist(e[v+1]),_=-p;_<f+p;_++){var w=_*u,k=y+w;if(w<0&&(k+=w),w>i&&(k+=w-i),!(k<m)){for(;m+b<k;){if(m+=b,++v+1>=e.length)return;b=e[v].dist(e[v+1])}var T=k-m,A=e[v],M=e[v+1].sub(A)._unit()._mult(T)._add(A)._round(),S=Math.abs(k-d)<u?0:.8*(k-d);t.emplaceBack(M.x,M.y,-a/2,-a/2,a/2,a/2,o,s,l,a/2,S)}}};var l=u,c=u;function u(t,e){if(!(this instanceof u))return new u(t,e);if(this.data=t||[],this.length=this.data.length,this.compare=e||f,this.length>0)for(var r=(this.length>>1)-1;r>=0;r--)this._down(r)}function f(t,e){return t<e?-1:t>e?1:0}function h(e,r,n){void 0===r&&(r=1),void 0===n&&(n=!1);for(var i=1/0,a=1/0,o=-1/0,s=-1/0,c=e[0],u=0;u<c.length;u++){var f=c[u];(!u||f.x<i)&&(i=f.x),(!u||f.y<a)&&(a=f.y),(!u||f.x>o)&&(o=f.x),(!u||f.y>s)&&(s=f.y)}var h=o-i,g=s-a,v=Math.min(h,g),m=v/2,y=new l(null,p);if(0===v)return new t.default$1(i,a);for(var x=i;x<o;x+=v)for(var b=a;b<s;b+=v)y.push(new d(x+m,b+m,m,e));for(var _=function(t){for(var e=0,r=0,n=0,i=t[0],a=0,o=i.length,s=o-1;a<o;s=a++){var l=i[a],c=i[s],u=l.x*c.y-c.x*l.y;r+=(l.x+c.x)*u,n+=(l.y+c.y)*u,e+=3*u}return new d(r/e,n/e,0,t)}(e),w=y.length;y.length;){var k=y.pop();(k.d>_.d||!_.d)&&(_=k,n&&console.log(\\\"found best %d after %d probes\\\",Math.round(1e4*k.d)/1e4,w)),k.max-_.d<=r||(m=k.h/2,y.push(new d(k.p.x-m,k.p.y-m,m,e)),y.push(new d(k.p.x+m,k.p.y-m,m,e)),y.push(new d(k.p.x-m,k.p.y+m,m,e)),y.push(new d(k.p.x+m,k.p.y+m,m,e)),w+=4)}return n&&(console.log(\\\"num probes: \\\"+w),console.log(\\\"best distance: \\\"+_.d)),_.p}function p(t,e){return e.max-t.max}function d(e,r,n,i){this.p=new t.default$1(e,r),this.h=n,this.d=function(e,r){for(var n=!1,i=1/0,a=0;a<r.length;a++)for(var o=r[a],s=0,l=o.length,c=l-1;s<l;c=s++){var u=o[s],f=o[c];u.y>e.y!=f.y>e.y&&e.x<(f.x-u.x)*(e.y-u.y)/(f.y-u.y)+u.x&&(n=!n),i=Math.min(i,t.distToSegmentSquared(e,u,f))}return(n?1:-1)*Math.sqrt(i)}(this.p,i),this.max=this.d+this.h*Math.SQRT2}function g(e,r,n,i,a,o){e.createArrays(),e.symbolInstances=[];var s=512*e.overscaling;e.tilePixelRatio=t.default$8/s,e.compareText={},e.iconsNeedLinear=!1;var l=e.layers[0].layout,c=e.layers[0]._unevaluatedLayout._values,u={};if(\\\"composite\\\"===e.textSizeData.functionType){var f=e.textSizeData.zoomRange,h=f.min,p=f.max;u.compositeTextSizes=[c[\\\"text-size\\\"].possiblyEvaluate(new t.default$16(h)),c[\\\"text-size\\\"].possiblyEvaluate(new t.default$16(p))]}if(\\\"composite\\\"===e.iconSizeData.functionType){var d=e.iconSizeData.zoomRange,g=d.min,m=d.max;u.compositeIconSizes=[c[\\\"icon-size\\\"].possiblyEvaluate(new t.default$16(g)),c[\\\"icon-size\\\"].possiblyEvaluate(new t.default$16(m))]}u.layoutTextSize=c[\\\"text-size\\\"].possiblyEvaluate(new t.default$16(e.zoom+1)),u.layoutIconSize=c[\\\"icon-size\\\"].possiblyEvaluate(new t.default$16(e.zoom+1)),u.textMaxSize=c[\\\"text-size\\\"].possiblyEvaluate(new t.default$16(18));for(var y=24*l.get(\\\"text-line-height\\\"),x=\\\"map\\\"===l.get(\\\"text-rotation-alignment\\\")&&\\\"line\\\"===l.get(\\\"symbol-placement\\\"),b=l.get(\\\"text-keep-upright\\\"),_=0,w=e.features;_<w.length;_+=1){var k=w[_],T=l.get(\\\"text-font\\\").evaluate(k).join(\\\",\\\"),A=r[T]||{},M=n[T]||{},S={},E=k.text;if(E){var C=l.get(\\\"text-offset\\\").evaluate(k).map(function(t){return 24*t}),L=24*l.get(\\\"text-letter-spacing\\\").evaluate(k),z=t.allowsLetterSpacing(E)?L:0,O=l.get(\\\"text-anchor\\\").evaluate(k),I=l.get(\\\"text-justify\\\").evaluate(k),D=\\\"line\\\"!==l.get(\\\"symbol-placement\\\")?24*l.get(\\\"text-max-width\\\").evaluate(k):0;S.horizontal=t.shapeText(E,A,D,y,O,I,z,C,24,t.WritingMode.horizontal),t.allowsVerticalWritingMode(E)&&x&&b&&(S.vertical=t.shapeText(E,A,D,y,O,I,z,C,24,t.WritingMode.vertical))}var P=void 0;if(k.icon){var R=i[k.icon];R&&(P=t.shapeIcon(a[k.icon],l.get(\\\"icon-offset\\\").evaluate(k),l.get(\\\"icon-anchor\\\").evaluate(k)),void 0===e.sdfIcons?e.sdfIcons=R.sdf:e.sdfIcons!==R.sdf&&t.warnOnce(\\\"Style sheet warning: Cannot mix SDF and non-SDF icons in one buffer\\\"),R.pixelRatio!==e.pixelRatio?e.iconsNeedLinear=!0:0!==l.get(\\\"icon-rotate\\\").constantOr(1)&&(e.iconsNeedLinear=!0))}(S.horizontal||P)&&v(e,k,S,P,M,u)}o&&e.generateCollisionDebugBuffers()}function v(e,r,n,i,l,c){var u=c.layoutTextSize.evaluate(r),f=c.layoutIconSize.evaluate(r),p=c.textMaxSize.evaluate(r);void 0===p&&(p=u);var d=e.layers[0].layout,g=d.get(\\\"text-offset\\\").evaluate(r),v=d.get(\\\"icon-offset\\\").evaluate(r),x=u/24,b=e.tilePixelRatio*x,_=e.tilePixelRatio*p/24,w=e.tilePixelRatio*f,k=e.tilePixelRatio*d.get(\\\"symbol-spacing\\\"),T=d.get(\\\"text-padding\\\")*e.tilePixelRatio,A=d.get(\\\"icon-padding\\\")*e.tilePixelRatio,M=d.get(\\\"text-max-angle\\\")/180*Math.PI,S=\\\"map\\\"===d.get(\\\"text-rotation-alignment\\\")&&\\\"line\\\"===d.get(\\\"symbol-placement\\\"),E=\\\"map\\\"===d.get(\\\"icon-rotation-alignment\\\")&&\\\"line\\\"===d.get(\\\"symbol-placement\\\"),C=k/2,L=function(a,u){u.x<0||u.x>=t.default$8||u.y<0||u.y>=t.default$8||e.symbolInstances.push(function(e,r,n,i,a,l,c,u,f,h,p,d,g,v,y,x,b,_,w,k,T){var A,M,S=e.addToLineVertexArray(r,n),E=0,C=0,L=0,z=i.horizontal?i.horizontal.text:\\\"\\\",O=[];i.horizontal&&(A=new s(c,n,r,u,f,h,i.horizontal,p,d,g,e.overscaling),C+=m(e,r,i.horizontal,l,g,w,v,S,i.vertical?t.WritingMode.horizontal:t.WritingMode.horizontalOnly,O,k,T),i.vertical&&(L+=m(e,r,i.vertical,l,g,w,v,S,t.WritingMode.vertical,O,k,T)));var I=A?A.boxStartIndex:e.collisionBoxArray.length,D=A?A.boxEndIndex:e.collisionBoxArray.length;if(a){var P=function(e,r,n,i,a,o){var s,l,c,u,f=r.image,h=n.layout,p=r.top-1/f.pixelRatio,d=r.left-1/f.pixelRatio,g=r.bottom+1/f.pixelRatio,v=r.right+1/f.pixelRatio;if(\\\"none\\\"!==h.get(\\\"icon-text-fit\\\")&&a){var m=v-d,y=g-p,x=h.get(\\\"text-size\\\").evaluate(o)/24,b=a.left*x,_=a.right*x,w=a.top*x,k=_-b,T=a.bottom*x-w,A=h.get(\\\"icon-text-fit-padding\\\")[0],M=h.get(\\\"icon-text-fit-padding\\\")[1],S=h.get(\\\"icon-text-fit-padding\\\")[2],E=h.get(\\\"icon-text-fit-padding\\\")[3],C=\\\"width\\\"===h.get(\\\"icon-text-fit\\\")?.5*(T-y):0,L=\\\"height\\\"===h.get(\\\"icon-text-fit\\\")?.5*(k-m):0,z=\\\"width\\\"===h.get(\\\"icon-text-fit\\\")||\\\"both\\\"===h.get(\\\"icon-text-fit\\\")?k:m,O=\\\"height\\\"===h.get(\\\"icon-text-fit\\\")||\\\"both\\\"===h.get(\\\"icon-text-fit\\\")?T:y;s=new t.default$1(b+L-E,w+C-A),l=new t.default$1(b+L+M+z,w+C-A),c=new t.default$1(b+L+M+z,w+C+S+O),u=new t.default$1(b+L-E,w+C+S+O)}else s=new t.default$1(d,p),l=new t.default$1(v,p),c=new t.default$1(v,g),u=new t.default$1(d,g);var I=n.layout.get(\\\"icon-rotate\\\").evaluate(o)*Math.PI/180;if(I){var D=Math.sin(I),P=Math.cos(I),R=[P,-D,D,P];s._matMult(R),l._matMult(R),u._matMult(R),c._matMult(R)}return[{tl:s,tr:l,bl:u,br:c,tex:f.paddedRect,writingMode:void 0,glyphOffset:[0,0]}]}(0,a,l,0,i.horizontal,w);M=new s(c,n,r,u,f,h,a,y,x,!1,e.overscaling),E=4*P.length;var R=e.iconSizeData,F=null;\\\"source\\\"===R.functionType?F=[10*l.layout.get(\\\"icon-size\\\").evaluate(w)]:\\\"composite\\\"===R.functionType&&(F=[10*T.compositeIconSizes[0].evaluate(w),10*T.compositeIconSizes[1].evaluate(w)]),e.addSymbols(e.icon,P,F,_,b,w,!1,r,S.lineStartIndex,S.lineLength)}var B=M?M.boxStartIndex:e.collisionBoxArray.length,N=M?M.boxEndIndex:e.collisionBoxArray.length;return e.glyphOffsetArray.length>=t.default$14.MAX_GLYPHS&&t.warnOnce(\\\"Too many glyphs being rendered in a tile. See https://github.com/mapbox/mapbox-gl-js/issues/2907\\\"),{key:z,textBoxStartIndex:I,textBoxEndIndex:D,iconBoxStartIndex:B,iconBoxEndIndex:N,textOffset:v,iconOffset:_,anchor:r,line:n,featureIndex:u,feature:w,numGlyphVertices:C,numVerticalGlyphVertices:L,numIconVertices:E,textOpacityState:new o,iconOpacityState:new o,isDuplicate:!1,placedTextSymbolIndices:O,crossTileID:0}}(e,u,a,n,i,e.layers[0],e.collisionBoxArray,r.index,r.sourceLayerIndex,e.index,b,T,S,g,w,A,E,v,r,l,c))};if(\\\"line\\\"===d.get(\\\"symbol-placement\\\"))for(var z=0,O=function(e,r,n,i,a){for(var o=[],s=0;s<e.length;s++)for(var l=e[s],c=void 0,u=0;u<l.length-1;u++){var f=l[u],h=l[u+1];f.x<0&&h.x<0||(f.x<0?f=new t.default$1(0,f.y+(h.y-f.y)*((0-f.x)/(h.x-f.x)))._round():h.x<0&&(h=new t.default$1(0,f.y+(h.y-f.y)*((0-f.x)/(h.x-f.x)))._round()),f.y<0&&h.y<0||(f.y<0?f=new t.default$1(f.x+(h.x-f.x)*((0-f.y)/(h.y-f.y)),0)._round():h.y<0&&(h=new t.default$1(f.x+(h.x-f.x)*((0-f.y)/(h.y-f.y)),0)._round()),f.x>=i&&h.x>=i||(f.x>=i?f=new t.default$1(i,f.y+(h.y-f.y)*((i-f.x)/(h.x-f.x)))._round():h.x>=i&&(h=new t.default$1(i,f.y+(h.y-f.y)*((i-f.x)/(h.x-f.x)))._round()),f.y>=a&&h.y>=a||(f.y>=a?f=new t.default$1(f.x+(h.x-f.x)*((a-f.y)/(h.y-f.y)),a)._round():h.y>=a&&(h=new t.default$1(f.x+(h.x-f.x)*((a-f.y)/(h.y-f.y)),a)._round()),c&&f.equals(c[c.length-1])||(c=[f],o.push(c)),c.push(h)))))}return o}(r.geometry,0,0,t.default$8,t.default$8);z<O.length;z+=1)for(var I=O[z],D=0,P=a(I,k,M,n.vertical||n.horizontal,i,24,_,e.overscaling,t.default$8);D<P.length;D+=1){var R=P[D],F=n.horizontal;F&&y(e,F.text,C,R)||L(I,R)}else if(\\\"Polygon\\\"===r.type)for(var B=0,N=t.default$26(r.geometry,0);B<N.length;B+=1){var j=N[B],V=h(j,16);L(j[0],new t.default$25(V.x,V.y,0))}else if(\\\"LineString\\\"===r.type)for(var U=0,H=r.geometry;U<H.length;U+=1){var q=H[U];L(q,new t.default$25(q[0].x,q[0].y,0))}else if(\\\"Point\\\"===r.type)for(var G=0,Y=r.geometry;G<Y.length;G+=1)for(var W=0,X=Y[G];W<X.length;W+=1){var Z=X[W];L([Z],new t.default$25(Z.x,Z.y,0))}}function m(e,r,n,i,a,o,s,l,c,u,f,h){var p=function(e,r,n,i,a,o){for(var s=n.layout.get(\\\"text-rotate\\\").evaluate(a)*Math.PI/180,l=n.layout.get(\\\"text-offset\\\").evaluate(a).map(function(t){return 24*t}),c=r.positionedGlyphs,u=[],f=0;f<c.length;f++){var h=c[f],p=o[h.glyph];if(p){var d=p.rect;if(d){var g=t.GLYPH_PBF_BORDER+1,v=p.metrics.advance/2,m=i?[h.x+v,h.y]:[0,0],y=i?[0,0]:[h.x+v+l[0],h.y+l[1]],x=p.metrics.left-g-v+y[0],b=-p.metrics.top-g+y[1],_=x+d.w,w=b+d.h,k=new t.default$1(x,b),T=new t.default$1(_,b),A=new t.default$1(x,w),M=new t.default$1(_,w);if(i&&h.vertical){var S=new t.default$1(-v,v),E=-Math.PI/2,C=new t.default$1(5,0);k._rotateAround(E,S)._add(C),T._rotateAround(E,S)._add(C),A._rotateAround(E,S)._add(C),M._rotateAround(E,S)._add(C)}if(s){var L=Math.sin(s),z=Math.cos(s),O=[z,-L,L,z];k._matMult(O),T._matMult(O),A._matMult(O),M._matMult(O)}u.push({tl:k,tr:T,bl:A,br:M,tex:d,writingMode:r.writingMode,glyphOffset:m})}}}return u}(0,n,i,a,o,f),d=e.textSizeData,g=null;return\\\"source\\\"===d.functionType?g=[10*i.layout.get(\\\"text-size\\\").evaluate(o)]:\\\"composite\\\"===d.functionType&&(g=[10*h.compositeTextSizes[0].evaluate(o),10*h.compositeTextSizes[1].evaluate(o)]),e.addSymbols(e.text,p,g,s,a,o,c,r,l.lineStartIndex,l.lineLength),u.push(e.text.placedSymbolArray.length-1),4*p.length}function y(t,e,r,n){var i=t.compareText;if(e in i){for(var a=i[e],o=a.length-1;o>=0;o--)if(n.dist(a[o])<r)return!0}else i[e]=[];return i[e].push(n),!1}u.prototype={push:function(t){this.data.push(t),this.length++,this._up(this.length-1)},pop:function(){if(0!==this.length){var t=this.data[0];return this.length--,this.length>0&&(this.data[0]=this.data[this.length],this._down(0)),this.data.pop(),t}},peek:function(){return this.data[0]},_up:function(t){for(var e=this.data,r=this.compare,n=e[t];t>0;){var i=t-1>>1,a=e[i];if(r(n,a)>=0)break;e[t]=a,t=i}e[t]=n},_down:function(t){for(var e=this.data,r=this.compare,n=this.length>>1,i=e[t];t<n;){var a=1+(t<<1),o=a+1,s=e[a];if(o<this.length&&r(e[o],s)<0&&(a=o,s=e[o]),r(s,i)>=0)break;e[t]=s,t=a}e[t]=i}},l.default=c;var x=function(e){var r=new t.AlphaImage({width:0,height:0}),n={},i=new t.default$2(0,0,{autoResize:!0});for(var a in e){var o=e[a],s=n[a]={};for(var l in o){var c=o[+l];if(c&&0!==c.bitmap.width&&0!==c.bitmap.height){var u=i.packOne(c.bitmap.width+2,c.bitmap.height+2);r.resize({width:i.w,height:i.h}),t.AlphaImage.copy(c.bitmap,r,{x:0,y:0},{x:u.x+1,y:u.y+1},c.bitmap),s[l]={rect:u,metrics:c.metrics}}}}i.shrink(),r.resize({width:i.w,height:i.h}),this.image=r,this.positions=n};t.register(\\\"GlyphAtlas\\\",x);var b=function(e){this.tileID=new t.OverscaledTileID(e.tileID.overscaledZ,e.tileID.wrap,e.tileID.canonical.z,e.tileID.canonical.x,e.tileID.canonical.y),this.uid=e.uid,this.zoom=e.zoom,this.pixelRatio=e.pixelRatio,this.tileSize=e.tileSize,this.source=e.source,this.overscaling=this.tileID.overscaleFactor(),this.showCollisionBoxes=e.showCollisionBoxes,this.collectResourceTiming=!!e.collectResourceTiming};function _(e,r){for(var n=new t.default$16(r),i=0,a=e;i<a.length;i+=1)a[i].recalculate(n)}b.prototype.parse=function(e,r,n,i){var a=this;this.status=\\\"parsing\\\",this.data=e,this.collisionBoxArray=new t.CollisionBoxArray;var o=new t.default$27(Object.keys(e.layers).sort()),s=new t.default$11(this.tileID);s.bucketLayerIDs=[];var l,c,u,f={},h={featureIndex:s,iconDependencies:{},glyphDependencies:{}},p=r.familiesBySource[this.source];for(var d in p){var v=e.layers[d];if(v){1===v.version&&t.warnOnce('Vector tile source \\\"'+a.source+'\\\" layer \\\"'+d+'\\\" does not use vector tile spec v2 and therefore may have some rendering errors.');for(var m=o.encode(d),y=[],b=0;b<v.length;b++){var w=v.feature(b);y.push({feature:w,index:b,sourceLayerIndex:m})}for(var k=0,T=p[d];k<T.length;k+=1){var A=T[k],M=A[0];M.minzoom&&a.zoom<Math.floor(M.minzoom)||M.maxzoom&&a.zoom>=M.maxzoom||\\\"none\\\"!==M.visibility&&(_(A,a.zoom),(f[M.id]=M.createBucket({index:s.bucketLayerIDs.length,layers:A,zoom:a.zoom,pixelRatio:a.pixelRatio,overscaling:a.overscaling,collisionBoxArray:a.collisionBoxArray,sourceLayerIndex:m})).populate(y,h),s.bucketLayerIDs.push(A.map(function(t){return t.id})))}}}var S=t.mapObject(h.glyphDependencies,function(t){return Object.keys(t).map(Number)});Object.keys(S).length?n.send(\\\"getGlyphs\\\",{uid:this.uid,stacks:S},function(t,e){l||(l=t,c=e,C.call(a))}):c={};var E=Object.keys(h.iconDependencies);function C(){if(l)return i(l);if(c&&u){var e=new x(c),r=new t.default$28(u);for(var n in f){var a=f[n];a instanceof t.default$14&&(_(a.layers,this.zoom),g(a,c,e.positions,u,r.positions,this.showCollisionBoxes))}this.status=\\\"done\\\",i(null,{buckets:t.values(f).filter(function(t){return!t.isEmpty()}),featureIndex:s,collisionBoxArray:this.collisionBoxArray,glyphAtlasImage:e.image,iconAtlasImage:r.image})}}E.length?n.send(\\\"getImages\\\",{icons:E},function(t,e){l||(l=t,u=e,C.call(a))}):u={},C.call(this)};var w=function(t){return!(!performance||!performance.getEntriesByName)&&performance.getEntriesByName(t)};function k(e,r){var n=t.getArrayBuffer(e.request,function(e,n){e?r(e):n&&r(null,{vectorTile:new t.default$29.VectorTile(new t.default$30(n.data)),rawData:n.data,cacheControl:n.cacheControl,expires:n.expires})});return function(){n.abort(),r()}}var T=function(t,e,r){this.actor=t,this.layerIndex=e,this.loadVectorData=r||k,this.loading={},this.loaded={}};T.prototype.loadTile=function(e,r){var n=this,i=e.uid;this.loading||(this.loading={});var a=this.loading[i]=new b(e);a.abort=this.loadVectorData(e,function(o,s){if(delete n.loading[i],o||!s)return r(o);var l=s.rawData,c={};s.expires&&(c.expires=s.expires),s.cacheControl&&(c.cacheControl=s.cacheControl);var u={};if(e.request&&e.request.collectResourceTiming){var f=w(e.request.url);f&&(u.resourceTiming=JSON.parse(JSON.stringify(f)))}a.vectorTile=s.vectorTile,a.parse(s.vectorTile,n.layerIndex,n.actor,function(e,n){if(e||!n)return r(e);r(null,t.extend({rawTileData:l.slice(0)},n,c,u))}),n.loaded=n.loaded||{},n.loaded[i]=a})},T.prototype.reloadTile=function(t,e){var r=this.loaded,n=t.uid,i=this;if(r&&r[n]){var a=r[n];a.showCollisionBoxes=t.showCollisionBoxes;var o=function(t,r){var n=a.reloadCallback;n&&(delete a.reloadCallback,a.parse(a.vectorTile,i.layerIndex,i.actor,n)),e(t,r)};\\\"parsing\\\"===a.status?a.reloadCallback=o:\\\"done\\\"===a.status&&a.parse(a.vectorTile,this.layerIndex,this.actor,o)}},T.prototype.abortTile=function(t,e){var r=this.loading,n=t.uid;r&&r[n]&&r[n].abort&&(r[n].abort(),delete r[n]),e()},T.prototype.removeTile=function(t,e){var r=this.loaded,n=t.uid;r&&r[n]&&delete r[n],e()};var A=function(){this.loading={},this.loaded={}};A.prototype.loadTile=function(e,r){var n=e.uid,i=e.encoding,a=new t.default$31(n);this.loading[n]=a,a.loadFromImage(e.rawImageData,i),delete this.loading[n],this.loaded=this.loaded||{},this.loaded[n]=a,r(null,a)},A.prototype.removeTile=function(t){var e=this.loaded,r=t.uid;e&&e[r]&&delete e[r]};var M={RADIUS:6378137,FLATTENING:1/298.257223563,POLAR_RADIUS:6356752.3142};function S(t){var e=0;if(t&&t.length>0){e+=Math.abs(E(t[0]));for(var r=1;r<t.length;r++)e-=Math.abs(E(t[r]))}return e}function E(t){var e,r,n,i,a,o,s=0,l=t.length;if(l>2){for(o=0;o<l;o++)o===l-2?(n=l-2,i=l-1,a=0):o===l-1?(n=l-1,i=0,a=1):(n=o,i=o+1,a=o+2),e=t[n],r=t[i],s+=(C(t[a][0])-C(e[0]))*Math.sin(C(r[1]));s=s*M.RADIUS*M.RADIUS/2}return s}function C(t){return t*Math.PI/180}var L={geometry:function t(e){var r,n=0;switch(e.type){case\\\"Polygon\\\":return S(e.coordinates);case\\\"MultiPolygon\\\":for(r=0;r<e.coordinates.length;r++)n+=S(e.coordinates[r]);return n;case\\\"Point\\\":case\\\"MultiPoint\\\":case\\\"LineString\\\":case\\\"MultiLineString\\\":return 0;case\\\"GeometryCollection\\\":for(r=0;r<e.geometries.length;r++)n+=t(e.geometries[r]);return n}},ring:E};function z(t,e){return function(r){return t(r,e)}}function O(t,e){e=!!e,t[0]=I(t[0],e);for(var r=1;r<t.length;r++)t[r]=I(t[r],!e);return t}function I(t,e){return function(t){return L.ring(t)>=0}(t)===e?t:t.reverse()}var D=t.default$29.VectorTileFeature.prototype.toGeoJSON,P=function(e){this._feature=e,this.extent=t.default$8,this.type=e.type,this.properties=e.tags,\\\"id\\\"in e&&!isNaN(e.id)&&(this.id=parseInt(e.id,10))};P.prototype.loadGeometry=function(){if(1===this._feature.type){for(var e=[],r=0,n=this._feature.geometry;r<n.length;r+=1){var i=n[r];e.push([new t.default$1(i[0],i[1])])}return e}for(var a=[],o=0,s=this._feature.geometry;o<s.length;o+=1){for(var l=[],c=0,u=s[o];c<u.length;c+=1){var f=u[c];l.push(new t.default$1(f[0],f[1]))}a.push(l)}return a},P.prototype.toGeoJSON=function(t,e,r){return D.call(this,t,e,r)};var R=function(e){this.layers={_geojsonTileLayer:this},this.name=\\\"_geojsonTileLayer\\\",this.extent=t.default$8,this.length=e.length,this._features=e};R.prototype.feature=function(t){return new P(this._features[t])};var F=t.__moduleExports.VectorTileFeature,B=N;function N(t,e){this.options=e||{},this.features=t,this.length=t.length}function j(t,e){this.id=\\\"number\\\"==typeof t.id?t.id:void 0,this.type=t.type,this.rawGeometry=1===t.type?[t.geometry]:t.geometry,this.properties=t.tags,this.extent=e||4096}N.prototype.feature=function(t){return new j(this.features[t],this.options.extent)},j.prototype.loadGeometry=function(){var e=this.rawGeometry;this.geometry=[];for(var r=0;r<e.length;r++){for(var n=e[r],i=[],a=0;a<n.length;a++)i.push(new t.default$32(n[a][0],n[a][1]));this.geometry.push(i)}return this.geometry},j.prototype.bbox=function(){this.geometry||this.loadGeometry();for(var t=this.geometry,e=1/0,r=-1/0,n=1/0,i=-1/0,a=0;a<t.length;a++)for(var o=t[a],s=0;s<o.length;s++){var l=o[s];e=Math.min(e,l.x),r=Math.max(r,l.x),n=Math.min(n,l.y),i=Math.max(i,l.y)}return[e,n,r,i]},j.prototype.toGeoJSON=F.prototype.toGeoJSON;var V=q,U=q,H=B;function q(e){var r=new t.__moduleExports$1;return function(t,e){for(var r in t.layers)e.writeMessage(3,G,t.layers[r])}(e,r),r.finish()}function G(t,e){var r;e.writeVarintField(15,t.version||1),e.writeStringField(1,t.name||\\\"\\\"),e.writeVarintField(5,t.extent||4096);var n={keys:[],values:[],keycache:{},valuecache:{}};for(r=0;r<t.length;r++)n.feature=t.feature(r),e.writeMessage(2,Y,n);var i=n.keys;for(r=0;r<i.length;r++)e.writeStringField(3,i[r]);var a=n.values;for(r=0;r<a.length;r++)e.writeMessage(4,J,a[r])}function Y(t,e){var r=t.feature;void 0!==r.id&&e.writeVarintField(1,r.id),e.writeMessage(2,W,t),e.writeVarintField(3,r.type),e.writeMessage(4,$,r)}function W(t,e){var r=t.feature,n=t.keys,i=t.values,a=t.keycache,o=t.valuecache;for(var s in r.properties){var l=a[s];void 0===l&&(n.push(s),l=n.length-1,a[s]=l),e.writeVarint(l);var c=r.properties[s],u=typeof c;\\\"string\\\"!==u&&\\\"boolean\\\"!==u&&\\\"number\\\"!==u&&(c=JSON.stringify(c));var f=u+\\\":\\\"+c,h=o[f];void 0===h&&(i.push(c),h=i.length-1,o[f]=h),e.writeVarint(h)}}function X(t,e){return(e<<3)+(7&t)}function Z(t){return t<<1^t>>31}function $(t,e){for(var r=t.loadGeometry(),n=t.type,i=0,a=0,o=r.length,s=0;s<o;s++){var l=r[s],c=1;1===n&&(c=l.length),e.writeVarint(X(1,c));for(var u=3===n?l.length-1:l.length,f=0;f<u;f++){1===f&&1!==n&&e.writeVarint(X(2,u-1));var h=l[f].x-i,p=l[f].y-a;e.writeVarint(Z(h)),e.writeVarint(Z(p)),i+=h,a+=p}3===n&&e.writeVarint(X(7,0))}}function J(t,e){var r=typeof t;\\\"string\\\"===r?e.writeStringField(1,t):\\\"boolean\\\"===r?e.writeBooleanField(7,t):\\\"number\\\"===r&&(t%1!=0?e.writeDoubleField(3,t):t<0?e.writeSVarintField(6,t):e.writeVarintField(5,t))}V.fromVectorTileJs=U,V.fromGeojsonVt=function(t,e){e=e||{};var r={};for(var n in t)r[n]=new B(t[n].features,e),r[n].name=n,r[n].version=e.version,r[n].extent=e.extent;return q({layers:r})},V.GeoJSONWrapper=H;var K=function t(e,r,n,i,a,o){if(!(a-i<=n)){var s=Math.floor((i+a)/2);!function t(e,r,n,i,a,o){for(;a>i;){if(a-i>600){var s=a-i+1,l=n-i+1,c=Math.log(s),u=.5*Math.exp(2*c/3),f=.5*Math.sqrt(c*u*(s-u)/s)*(l-s/2<0?-1:1);t(e,r,n,Math.max(i,Math.floor(n-l*u/s+f)),Math.min(a,Math.floor(n+(s-l)*u/s+f)),o)}var h=r[2*n+o],p=i,d=a;for(Q(e,r,i,n),r[2*a+o]>h&&Q(e,r,i,a);p<d;){for(Q(e,r,p,d),p++,d--;r[2*p+o]<h;)p++;for(;r[2*d+o]>h;)d--}r[2*i+o]===h?Q(e,r,i,d):Q(e,r,++d,a),d<=n&&(i=d+1),n<=d&&(a=d-1)}}(e,r,s,i,a,o%2),t(e,r,n,i,s-1,o+1),t(e,r,n,s+1,a,o+1)}};function Q(t,e,r,n){tt(t,r,n),tt(e,2*r,2*n),tt(e,2*r+1,2*n+1)}function tt(t,e,r){var n=t[e];t[e]=t[r],t[r]=n}function et(t,e,r,n){var i=t-r,a=e-n;return i*i+a*a}var rt=function(t,e,r,n,i){return new nt(t,e,r,n,i)};function nt(t,e,r,n,i){e=e||it,r=r||at,i=i||Array,this.nodeSize=n||64,this.points=t,this.ids=new i(t.length),this.coords=new i(2*t.length);for(var a=0;a<t.length;a++)this.ids[a]=a,this.coords[2*a]=e(t[a]),this.coords[2*a+1]=r(t[a]);K(this.ids,this.coords,this.nodeSize,0,this.ids.length-1,0)}function it(t){return t[0]}function at(t){return t[1]}nt.prototype={range:function(t,e,r,n){return function(t,e,r,n,i,a,o){for(var s,l,c=[0,t.length-1,0],u=[];c.length;){var f=c.pop(),h=c.pop(),p=c.pop();if(h-p<=o)for(var d=p;d<=h;d++)s=e[2*d],l=e[2*d+1],s>=r&&s<=i&&l>=n&&l<=a&&u.push(t[d]);else{var g=Math.floor((p+h)/2);s=e[2*g],l=e[2*g+1],s>=r&&s<=i&&l>=n&&l<=a&&u.push(t[g]);var v=(f+1)%2;(0===f?r<=s:n<=l)&&(c.push(p),c.push(g-1),c.push(v)),(0===f?i>=s:a>=l)&&(c.push(g+1),c.push(h),c.push(v))}}return u}(this.ids,this.coords,t,e,r,n,this.nodeSize)},within:function(t,e,r){return function(t,e,r,n,i,a){for(var o=[0,t.length-1,0],s=[],l=i*i;o.length;){var c=o.pop(),u=o.pop(),f=o.pop();if(u-f<=a)for(var h=f;h<=u;h++)et(e[2*h],e[2*h+1],r,n)<=l&&s.push(t[h]);else{var p=Math.floor((f+u)/2),d=e[2*p],g=e[2*p+1];et(d,g,r,n)<=l&&s.push(t[p]);var v=(c+1)%2;(0===c?r-i<=d:n-i<=g)&&(o.push(f),o.push(p-1),o.push(v)),(0===c?r+i>=d:n+i>=g)&&(o.push(p+1),o.push(u),o.push(v))}}return s}(this.ids,this.coords,t,e,r,this.nodeSize)}};function ot(t){this.options=pt(Object.create(this.options),t),this.trees=new Array(this.options.maxZoom+1)}function st(t,e,r,n,i){return{x:t,y:e,zoom:1/0,id:n,properties:i,parentId:-1,numPoints:r}}function lt(t,e){var r=t.geometry.coordinates;return{x:ft(r[0]),y:ht(r[1]),zoom:1/0,id:e,parentId:-1}}function ct(t){return{type:\\\"Feature\\\",properties:ut(t),geometry:{type:\\\"Point\\\",coordinates:[(n=t.x,360*(n-.5)),(e=t.y,r=(180-360*e)*Math.PI/180,360*Math.atan(Math.exp(r))/Math.PI-90)]}};var e,r,n}function ut(t){var e=t.numPoints,r=e>=1e4?Math.round(e/1e3)+\\\"k\\\":e>=1e3?Math.round(e/100)/10+\\\"k\\\":e;return pt(pt({},t.properties),{cluster:!0,cluster_id:t.id,point_count:e,point_count_abbreviated:r})}function ft(t){return t/360+.5}function ht(t){var e=Math.sin(t*Math.PI/180),r=.5-.25*Math.log((1+e)/(1-e))/Math.PI;return r<0?0:r>1?1:r}function pt(t,e){for(var r in e)t[r]=e[r];return t}function dt(t){return t.x}function gt(t){return t.y}function vt(t,e,r,n,i,a){var o=i-r,s=a-n;if(0!==o||0!==s){var l=((t-r)*o+(e-n)*s)/(o*o+s*s);l>1?(r=i,n=a):l>0&&(r+=o*l,n+=s*l)}return(o=t-r)*o+(s=e-n)*s}function mt(t,e,r,n){var i={id:t||null,type:e,geometry:r,tags:n,minX:1/0,minY:1/0,maxX:-1/0,maxY:-1/0};return function(t){var e=t.geometry,r=t.type;if(\\\"Point\\\"===r||\\\"MultiPoint\\\"===r||\\\"LineString\\\"===r)yt(t,e);else if(\\\"Polygon\\\"===r||\\\"MultiLineString\\\"===r)for(var n=0;n<e.length;n++)yt(t,e[n]);else if(\\\"MultiPolygon\\\"===r)for(n=0;n<e.length;n++)for(var i=0;i<e[n].length;i++)yt(t,e[n][i])}(i),i}function yt(t,e){for(var r=0;r<e.length;r+=3)t.minX=Math.min(t.minX,e[r]),t.minY=Math.min(t.minY,e[r+1]),t.maxX=Math.max(t.maxX,e[r]),t.maxY=Math.max(t.maxY,e[r+1])}function xt(t,e,r){if(e.geometry){var n=e.geometry.coordinates,i=e.geometry.type,a=Math.pow(r.tolerance/((1<<r.maxZoom)*r.extent),2),o=[];if(\\\"Point\\\"===i)bt(n,o);else if(\\\"MultiPoint\\\"===i)for(var s=0;s<n.length;s++)bt(n[s],o);else if(\\\"LineString\\\"===i)_t(n,o,a,!1);else if(\\\"MultiLineString\\\"===i)if(r.lineMetrics)for(s=0;s<n.length;s++)return o=[],_t(n[s],o,a,!1),void t.push(mt(e.id,\\\"LineString\\\",o,e.properties));else wt(n,o,a,!1);else if(\\\"Polygon\\\"===i)wt(n,o,a,!0);else{if(\\\"MultiPolygon\\\"!==i){if(\\\"GeometryCollection\\\"===i){for(s=0;s<e.geometry.geometries.length;s++)xt(t,{id:e.id,geometry:e.geometry.geometries[s],properties:e.properties},r);return}throw new Error(\\\"Input data is not a valid GeoJSON object.\\\")}for(s=0;s<n.length;s++){var l=[];wt(n[s],l,a,!0),o.push(l)}}t.push(mt(e.id,i,o,e.properties))}}function bt(t,e){e.push(kt(t[0])),e.push(Tt(t[1])),e.push(0)}function _t(t,e,r,n){for(var i,a,o=0,s=0;s<t.length;s++){var l=kt(t[s][0]),c=Tt(t[s][1]);e.push(l),e.push(c),e.push(0),s>0&&(o+=n?(i*c-l*a)/2:Math.sqrt(Math.pow(l-i,2)+Math.pow(c-a,2))),i=l,a=c}var u=e.length-3;e[2]=1,function t(e,r,n,i){for(var a,o=i,s=e[r],l=e[r+1],c=e[n],u=e[n+1],f=r+3;f<n;f+=3){var h=vt(e[f],e[f+1],s,l,c,u);h>o&&(a=f,o=h)}o>i&&(a-r>3&&t(e,r,a,i),e[a+2]=o,n-a>3&&t(e,a,n,i))}(e,0,u,r),e[u+2]=1,e.size=Math.abs(o),e.start=0,e.end=e.size}function wt(t,e,r,n){for(var i=0;i<t.length;i++){var a=[];_t(t[i],a,r,n),e.push(a)}}function kt(t){return t/360+.5}function Tt(t){var e=Math.sin(t*Math.PI/180),r=.5-.25*Math.log((1+e)/(1-e))/Math.PI;return r<0?0:r>1?1:r}function At(t,e,r,n,i,a,o,s){if(n/=e,a>=(r/=e)&&o<=n)return t;if(a>n||o<r)return null;for(var l=[],c=0;c<t.length;c++){var u=t[c],f=u.geometry,h=u.type,p=0===i?u.minX:u.minY,d=0===i?u.maxX:u.maxY;if(p>=r&&d<=n)l.push(u);else if(!(p>n||d<r)){var g=[];if(\\\"Point\\\"===h||\\\"MultiPoint\\\"===h)Mt(f,g,r,n,i);else if(\\\"LineString\\\"===h)St(f,g,r,n,i,!1,s.lineMetrics);else if(\\\"MultiLineString\\\"===h)Ct(f,g,r,n,i,!1);else if(\\\"Polygon\\\"===h)Ct(f,g,r,n,i,!0);else if(\\\"MultiPolygon\\\"===h)for(var v=0;v<f.length;v++){var m=[];Ct(f[v],m,r,n,i,!0),m.length&&g.push(m)}if(g.length){if(s.lineMetrics&&\\\"LineString\\\"===h){for(v=0;v<g.length;v++)l.push(mt(u.id,h,g[v],u.tags));continue}\\\"LineString\\\"!==h&&\\\"MultiLineString\\\"!==h||(1===g.length?(h=\\\"LineString\\\",g=g[0]):h=\\\"MultiLineString\\\"),\\\"Point\\\"!==h&&\\\"MultiPoint\\\"!==h||(h=3===g.length?\\\"Point\\\":\\\"MultiPoint\\\"),l.push(mt(u.id,h,g,u.tags))}}}return l.length?l:null}function Mt(t,e,r,n,i){for(var a=0;a<t.length;a+=3){var o=t[a+i];o>=r&&o<=n&&(e.push(t[a]),e.push(t[a+1]),e.push(t[a+2]))}}function St(t,e,r,n,i,a,o){for(var s,l,c=Et(t),u=0===i?zt:Ot,f=t.start,h=0;h<t.length-3;h+=3){var p=t[h],d=t[h+1],g=t[h+2],v=t[h+3],m=t[h+4],y=0===i?p:d,x=0===i?v:m,b=!1;o&&(s=Math.sqrt(Math.pow(p-v,2)+Math.pow(d-m,2))),y<r?x>=r&&(l=u(c,p,d,v,m,r),o&&(c.start=f+s*l)):y>n?x<=n&&(l=u(c,p,d,v,m,n),o&&(c.start=f+s*l)):Lt(c,p,d,g),x<r&&y>=r&&(l=u(c,p,d,v,m,r),b=!0),x>n&&y<=n&&(l=u(c,p,d,v,m,n),b=!0),!a&&b&&(o&&(c.end=f+s*l),e.push(c),c=Et(t)),o&&(f+=s)}var _=t.length-3;p=t[_],d=t[_+1],g=t[_+2],(y=0===i?p:d)>=r&&y<=n&&Lt(c,p,d,g),_=c.length-3,a&&_>=3&&(c[_]!==c[0]||c[_+1]!==c[1])&&Lt(c,c[0],c[1],c[2]),c.length&&e.push(c)}function Et(t){var e=[];return e.size=t.size,e.start=t.start,e.end=t.end,e}function Ct(t,e,r,n,i,a){for(var o=0;o<t.length;o++)St(t[o],e,r,n,i,a,!1)}function Lt(t,e,r,n){t.push(e),t.push(r),t.push(n)}function zt(t,e,r,n,i,a){var o=(a-e)/(n-e);return t.push(a),t.push(r+(i-r)*o),t.push(1),o}function Ot(t,e,r,n,i,a){var o=(a-r)/(i-r);return t.push(e+(n-e)*o),t.push(a),t.push(1),o}function It(t,e){for(var r=[],n=0;n<t.length;n++){var i,a=t[n],o=a.type;if(\\\"Point\\\"===o||\\\"MultiPoint\\\"===o||\\\"LineString\\\"===o)i=Dt(a.geometry,e);else if(\\\"MultiLineString\\\"===o||\\\"Polygon\\\"===o){i=[];for(var s=0;s<a.geometry.length;s++)i.push(Dt(a.geometry[s],e))}else if(\\\"MultiPolygon\\\"===o)for(i=[],s=0;s<a.geometry.length;s++){for(var l=[],c=0;c<a.geometry[s].length;c++)l.push(Dt(a.geometry[s][c],e));i.push(l)}r.push(mt(a.id,o,i,a.tags))}return r}function Dt(t,e){var r=[];r.size=t.size,void 0!==t.start&&(r.start=t.start,r.end=t.end);for(var n=0;n<t.length;n+=3)r.push(t[n]+e,t[n+1],t[n+2]);return r}function Pt(t,e){if(t.transformed)return t;var r,n,i,a=1<<t.z,o=t.x,s=t.y;for(r=0;r<t.features.length;r++){var l=t.features[r],c=l.geometry,u=l.type;if(l.geometry=[],1===u)for(n=0;n<c.length;n+=2)l.geometry.push(Rt(c[n],c[n+1],e,a,o,s));else for(n=0;n<c.length;n++){var f=[];for(i=0;i<c[n].length;i+=2)f.push(Rt(c[n][i],c[n][i+1],e,a,o,s));l.geometry.push(f)}}return t.transformed=!0,t}function Rt(t,e,r,n,i,a){return[Math.round(r*(t*n-i)),Math.round(r*(e*n-a))]}function Ft(t,e,r,n,i){for(var a=e===i.maxZoom?0:i.tolerance/((1<<e)*i.extent),o={features:[],numPoints:0,numSimplified:0,numFeatures:0,source:null,x:r,y:n,z:e,transformed:!1,minX:2,minY:1,maxX:-1,maxY:0},s=0;s<t.length;s++){o.numFeatures++,Bt(o,t[s],a,i);var l=t[s].minX,c=t[s].minY,u=t[s].maxX,f=t[s].maxY;l<o.minX&&(o.minX=l),c<o.minY&&(o.minY=c),u>o.maxX&&(o.maxX=u),f>o.maxY&&(o.maxY=f)}return o}function Bt(t,e,r,n){var i=e.geometry,a=e.type,o=[];if(\\\"Point\\\"===a||\\\"MultiPoint\\\"===a)for(var s=0;s<i.length;s+=3)o.push(i[s]),o.push(i[s+1]),t.numPoints++,t.numSimplified++;else if(\\\"LineString\\\"===a)Nt(o,i,t,r,!1,!1);else if(\\\"MultiLineString\\\"===a||\\\"Polygon\\\"===a)for(s=0;s<i.length;s++)Nt(o,i[s],t,r,\\\"Polygon\\\"===a,0===s);else if(\\\"MultiPolygon\\\"===a)for(var l=0;l<i.length;l++){var c=i[l];for(s=0;s<c.length;s++)Nt(o,c[s],t,r,!0,0===s)}if(o.length){var u=e.tags||null;if(\\\"LineString\\\"===a&&n.lineMetrics){for(var f in u={},e.tags)u[f]=e.tags[f];u.mapbox_clip_start=i.start/i.size,u.mapbox_clip_end=i.end/i.size}var h={geometry:o,type:\\\"Polygon\\\"===a||\\\"MultiPolygon\\\"===a?3:\\\"LineString\\\"===a||\\\"MultiLineString\\\"===a?2:1,tags:u};null!==e.id&&(h.id=e.id),t.features.push(h)}}function Nt(t,e,r,n,i,a){var o=n*n;if(n>0&&e.size<(i?o:n))r.numPoints+=e.length/3;else{for(var s=[],l=0;l<e.length;l+=3)(0===n||e[l+2]>o)&&(r.numSimplified++,s.push(e[l]),s.push(e[l+1])),r.numPoints++;i&&function(t,e){for(var r=0,n=0,i=t.length,a=i-2;n<i;a=n,n+=2)r+=(t[n]-t[a])*(t[n+1]+t[a+1]);if(r>0===e)for(n=0,i=t.length;n<i/2;n+=2){var o=t[n],s=t[n+1];t[n]=t[i-2-n],t[n+1]=t[i-1-n],t[i-2-n]=o,t[i-1-n]=s}}(s,a),t.push(s)}}function jt(t,e){var r=(e=this.options=function(t,e){for(var r in e)t[r]=e[r];return t}(Object.create(this.options),e)).debug;if(r&&console.time(\\\"preprocess data\\\"),e.maxZoom<0||e.maxZoom>24)throw new Error(\\\"maxZoom should be in the 0-24 range\\\");var n=function(t,e){var r=[];if(\\\"FeatureCollection\\\"===t.type)for(var n=0;n<t.features.length;n++)xt(r,t.features[n],e);else\\\"Feature\\\"===t.type?xt(r,t,e):xt(r,{geometry:t},e);return r}(t,e);this.tiles={},this.tileCoords=[],r&&(console.timeEnd(\\\"preprocess data\\\"),console.log(\\\"index: maxZoom: %d, maxPoints: %d\\\",e.indexMaxZoom,e.indexMaxPoints),console.time(\\\"generate tiles\\\"),this.stats={},this.total=0),(n=function(t,e){var r=e.buffer/e.extent,n=t,i=At(t,1,-1-r,r,0,-1,2,e),a=At(t,1,1-r,2+r,0,-1,2,e);return(i||a)&&(n=At(t,1,-r,1+r,0,-1,2,e)||[],i&&(n=It(i,1).concat(n)),a&&(n=n.concat(It(a,-1)))),n}(n,e)).length&&this.splitTile(n,0,0,0),r&&(n.length&&console.log(\\\"features: %d, points: %d\\\",this.tiles[0].numFeatures,this.tiles[0].numPoints),console.timeEnd(\\\"generate tiles\\\"),console.log(\\\"tiles generated:\\\",this.total,JSON.stringify(this.stats)))}function Vt(t,e,r){return 32*((1<<t)*r+e)+t}function Ut(t,e){var r=t.tileID.canonical;if(!this._geoJSONIndex)return e(null,null);var n=this._geoJSONIndex.getTile(r.z,r.x,r.y);if(!n)return e(null,null);var i=new R(n.features),a=V(i);0===a.byteOffset&&a.byteLength===a.buffer.byteLength||(a=new Uint8Array(a)),e(null,{vectorTile:i,rawData:a.buffer})}ot.prototype={options:{minZoom:0,maxZoom:16,radius:40,extent:512,nodeSize:64,log:!1,reduce:null,initial:function(){return{}},map:function(t){return t}},load:function(t){var e=this.options.log;e&&console.time(\\\"total time\\\");var r=\\\"prepare \\\"+t.length+\\\" points\\\";e&&console.time(r),this.points=t;var n=t.map(lt);e&&console.timeEnd(r);for(var i=this.options.maxZoom;i>=this.options.minZoom;i--){var a=+Date.now();this.trees[i+1]=rt(n,dt,gt,this.options.nodeSize,Float32Array),n=this._cluster(n,i),e&&console.log(\\\"z%d: %d clusters in %dms\\\",i,n.length,+Date.now()-a)}return this.trees[this.options.minZoom]=rt(n,dt,gt,this.options.nodeSize,Float32Array),e&&console.timeEnd(\\\"total time\\\"),this},getClusters:function(t,e){for(var r=this.trees[this._limitZoom(e)],n=r.range(ft(t[0]),ht(t[3]),ft(t[2]),ht(t[1])),i=[],a=0;a<n.length;a++){var o=r.points[n[a]];i.push(o.numPoints?ct(o):this.points[o.id])}return i},getChildren:function(t,e){for(var r=this.trees[e+1].points[t],n=this.options.radius/(this.options.extent*Math.pow(2,e)),i=this.trees[e+1].within(r.x,r.y,n),a=[],o=0;o<i.length;o++){var s=this.trees[e+1].points[i[o]];s.parentId===t&&a.push(s.numPoints?ct(s):this.points[s.id])}return a},getLeaves:function(t,e,r,n){r=r||10,n=n||0;var i=[];return this._appendLeaves(i,t,e,r,n,0),i},getTile:function(t,e,r){var n=this.trees[this._limitZoom(t)],i=Math.pow(2,t),a=this.options.extent,o=this.options.radius/a,s=(r-o)/i,l=(r+1+o)/i,c={features:[]};return this._addTileFeatures(n.range((e-o)/i,s,(e+1+o)/i,l),n.points,e,r,i,c),0===e&&this._addTileFeatures(n.range(1-o/i,s,1,l),n.points,i,r,i,c),e===i-1&&this._addTileFeatures(n.range(0,s,o/i,l),n.points,-1,r,i,c),c.features.length?c:null},getClusterExpansionZoom:function(t,e){for(;e<this.options.maxZoom;){var r=this.getChildren(t,e);if(e++,1!==r.length)break;t=r[0].properties.cluster_id}return e},_appendLeaves:function(t,e,r,n,i,a){for(var o=this.getChildren(e,r),s=0;s<o.length;s++){var l=o[s].properties;if(l.cluster?a+l.point_count<=i?a+=l.point_count:a=this._appendLeaves(t,l.cluster_id,r+1,n,i,a):a<i?a++:t.push(o[s]),t.length===n)break}return a},_addTileFeatures:function(t,e,r,n,i,a){for(var o=0;o<t.length;o++){var s=e[t[o]];a.features.push({type:1,geometry:[[Math.round(this.options.extent*(s.x*i-r)),Math.round(this.options.extent*(s.y*i-n))]],tags:s.numPoints?ut(s):this.points[s.id].properties})}},_limitZoom:function(t){return Math.max(this.options.minZoom,Math.min(t,this.options.maxZoom+1))},_cluster:function(t,e){for(var r=[],n=this.options.radius/(this.options.extent*Math.pow(2,e)),i=0;i<t.length;i++){var a=t[i];if(!(a.zoom<=e)){a.zoom=e;var o=this.trees[e+1],s=o.within(a.x,a.y,n),l=a.numPoints||1,c=a.x*l,u=a.y*l,f=null;this.options.reduce&&(f=this.options.initial(),this._accumulate(f,a));for(var h=0;h<s.length;h++){var p=o.points[s[h]];if(e<p.zoom){var d=p.numPoints||1;p.zoom=e,c+=p.x*d,u+=p.y*d,l+=d,p.parentId=i,this.options.reduce&&this._accumulate(f,p)}}1===l?r.push(a):(a.parentId=i,r.push(st(c/l,u/l,l,i,f)))}}return r},_accumulate:function(t,e){var r=e.numPoints?e.properties:this.options.map(this.points[e.id].properties);this.options.reduce(t,r)}},jt.prototype.options={maxZoom:14,indexMaxZoom:5,indexMaxPoints:1e5,tolerance:3,extent:4096,buffer:64,lineMetrics:!1,debug:0},jt.prototype.splitTile=function(t,e,r,n,i,a,o){for(var s=[t,e,r,n],l=this.options,c=l.debug;s.length;){n=s.pop(),r=s.pop(),e=s.pop(),t=s.pop();var u=1<<e,f=Vt(e,r,n),h=this.tiles[f];if(!h&&(c>1&&console.time(\\\"creation\\\"),h=this.tiles[f]=Ft(t,e,r,n,l),this.tileCoords.push({z:e,x:r,y:n}),c)){c>1&&(console.log(\\\"tile z%d-%d-%d (features: %d, points: %d, simplified: %d)\\\",e,r,n,h.numFeatures,h.numPoints,h.numSimplified),console.timeEnd(\\\"creation\\\"));var p=\\\"z\\\"+e;this.stats[p]=(this.stats[p]||0)+1,this.total++}if(h.source=t,i){if(e===l.maxZoom||e===i)continue;var d=1<<i-e;if(r!==Math.floor(a/d)||n!==Math.floor(o/d))continue}else if(e===l.indexMaxZoom||h.numPoints<=l.indexMaxPoints)continue;if(h.source=null,0!==t.length){c>1&&console.time(\\\"clipping\\\");var g,v,m,y,x,b,_=.5*l.buffer/l.extent,w=.5-_,k=.5+_,T=1+_;g=v=m=y=null,x=At(t,u,r-_,r+k,0,h.minX,h.maxX,l),b=At(t,u,r+w,r+T,0,h.minX,h.maxX,l),t=null,x&&(g=At(x,u,n-_,n+k,1,h.minY,h.maxY,l),v=At(x,u,n+w,n+T,1,h.minY,h.maxY,l),x=null),b&&(m=At(b,u,n-_,n+k,1,h.minY,h.maxY,l),y=At(b,u,n+w,n+T,1,h.minY,h.maxY,l),b=null),c>1&&console.timeEnd(\\\"clipping\\\"),s.push(g||[],e+1,2*r,2*n),s.push(v||[],e+1,2*r,2*n+1),s.push(m||[],e+1,2*r+1,2*n),s.push(y||[],e+1,2*r+1,2*n+1)}}},jt.prototype.getTile=function(t,e,r){var n=this.options,i=n.extent,a=n.debug;if(t<0||t>24)return null;var o=1<<t,s=Vt(t,e=(e%o+o)%o,r);if(this.tiles[s])return Pt(this.tiles[s],i);a>1&&console.log(\\\"drilling down to z%d-%d-%d\\\",t,e,r);for(var l,c=t,u=e,f=r;!l&&c>0;)c--,u=Math.floor(u/2),f=Math.floor(f/2),l=this.tiles[Vt(c,u,f)];return l&&l.source?(a>1&&console.log(\\\"found parent tile z%d-%d-%d\\\",c,u,f),a>1&&console.time(\\\"drilling down\\\"),this.splitTile(l.source,c,u,f,t,e,r),a>1&&console.timeEnd(\\\"drilling down\\\"),this.tiles[s]?Pt(this.tiles[s],i):null):null};var Ht=function(e){function r(t,r,n){e.call(this,t,r,Ut),n&&(this.loadGeoJSON=n)}return e&&(r.__proto__=e),r.prototype=Object.create(e&&e.prototype),r.prototype.constructor=r,r.prototype.loadData=function(t,e){this._pendingCallback&&this._pendingCallback(null,{abandoned:!0}),this._pendingCallback=e,this._pendingLoadDataParams=t,this._state&&\\\"Idle\\\"!==this._state?this._state=\\\"NeedsLoadData\\\":(this._state=\\\"Coalescing\\\",this._loadData())},r.prototype._loadData=function(){var t=this;if(this._pendingCallback&&this._pendingLoadDataParams){var e=this._pendingCallback,r=this._pendingLoadDataParams;delete this._pendingCallback,delete this._pendingLoadDataParams,this.loadGeoJSON(r,function(n,i){if(n||!i)return e(n);if(\\\"object\\\"!=typeof i)return e(new Error(\\\"Input data is not a valid GeoJSON object.\\\"));!function t(e,r){switch(e&&e.type||null){case\\\"FeatureCollection\\\":return e.features=e.features.map(z(t,r)),e;case\\\"Feature\\\":return e.geometry=t(e.geometry,r),e;case\\\"Polygon\\\":case\\\"MultiPolygon\\\":return function(t,e){return\\\"Polygon\\\"===t.type?t.coordinates=O(t.coordinates,e):\\\"MultiPolygon\\\"===t.type&&(t.coordinates=t.coordinates.map(z(O,e))),t}(e,r);default:return e}}(i,!0);try{t._geoJSONIndex=r.cluster?function(t){return new ot(t)}(r.superclusterOptions).load(i.features):new jt(i,r.geojsonVtOptions)}catch(n){return e(n)}t.loaded={};var a={};if(r.request&&r.request.collectResourceTiming){var o=w(r.request.url);o&&(a.resourceTiming={},a.resourceTiming[r.source]=JSON.parse(JSON.stringify(o)))}e(null,a)})}},r.prototype.coalesce=function(){\\\"Coalescing\\\"===this._state?this._state=\\\"Idle\\\":\\\"NeedsLoadData\\\"===this._state&&(this._state=\\\"Coalescing\\\",this._loadData())},r.prototype.reloadTile=function(t,r){var n=this.loaded,i=t.uid;return n&&n[i]?e.prototype.reloadTile.call(this,t,r):this.loadTile(t,r)},r.prototype.loadGeoJSON=function(e,r){if(e.request)t.getJSON(e.request,r);else{if(\\\"string\\\"!=typeof e.data)return r(new Error(\\\"Input data is not a valid GeoJSON object.\\\"));try{return r(null,JSON.parse(e.data))}catch(t){return r(new Error(\\\"Input data is not a valid GeoJSON object.\\\"))}}},r.prototype.removeSource=function(t,e){this._pendingCallback&&this._pendingCallback(null,{abandoned:!0}),e()},r}(T),qt=function(e){var r=this;this.self=e,this.actor=new t.default$7(e,this),this.layerIndexes={},this.workerSourceTypes={vector:T,geojson:Ht},this.workerSources={},this.demWorkerSources={},this.self.registerWorkerSource=function(t,e){if(r.workerSourceTypes[t])throw new Error('Worker source with name \\\"'+t+'\\\" already registered.');r.workerSourceTypes[t]=e},this.self.registerRTLTextPlugin=function(e){if(t.plugin.isLoaded())throw new Error(\\\"RTL text plugin already registered.\\\");t.plugin.applyArabicShaping=e.applyArabicShaping,t.plugin.processBidirectionalText=e.processBidirectionalText}};return qt.prototype.setLayers=function(t,e,r){this.getLayerIndex(t).replace(e),r()},qt.prototype.updateLayers=function(t,e,r){this.getLayerIndex(t).update(e.layers,e.removedIds),r()},qt.prototype.loadTile=function(t,e,r){this.getWorkerSource(t,e.type,e.source).loadTile(e,r)},qt.prototype.loadDEMTile=function(t,e,r){this.getDEMWorkerSource(t,e.source).loadTile(e,r)},qt.prototype.reloadTile=function(t,e,r){this.getWorkerSource(t,e.type,e.source).reloadTile(e,r)},qt.prototype.abortTile=function(t,e,r){this.getWorkerSource(t,e.type,e.source).abortTile(e,r)},qt.prototype.removeTile=function(t,e,r){this.getWorkerSource(t,e.type,e.source).removeTile(e,r)},qt.prototype.removeDEMTile=function(t,e){this.getDEMWorkerSource(t,e.source).removeTile(e)},qt.prototype.removeSource=function(t,e,r){if(this.workerSources[t]&&this.workerSources[t][e.type]&&this.workerSources[t][e.type][e.source]){var n=this.workerSources[t][e.type][e.source];delete this.workerSources[t][e.type][e.source],void 0!==n.removeSource?n.removeSource(e,r):r()}},qt.prototype.loadWorkerSource=function(t,e,r){try{this.self.importScripts(e.url),r()}catch(t){r(t.toString())}},qt.prototype.loadRTLTextPlugin=function(e,r,n){try{t.plugin.isLoaded()||(this.self.importScripts(r),n(t.plugin.isLoaded()?null:new Error(\\\"RTL Text Plugin failed to import scripts from \\\"+r)))}catch(t){n(t.toString())}},qt.prototype.getLayerIndex=function(t){var e=this.layerIndexes[t];return e||(e=this.layerIndexes[t]=new n),e},qt.prototype.getWorkerSource=function(t,e,r){var n=this;if(this.workerSources[t]||(this.workerSources[t]={}),this.workerSources[t][e]||(this.workerSources[t][e]={}),!this.workerSources[t][e][r]){var i={send:function(e,r,i){n.actor.send(e,r,i,t)}};this.workerSources[t][e][r]=new this.workerSourceTypes[e](i,this.getLayerIndex(t))}return this.workerSources[t][e][r]},qt.prototype.getDEMWorkerSource=function(t,e){return this.demWorkerSources[t]||(this.demWorkerSources[t]={}),this.demWorkerSources[t][e]||(this.demWorkerSources[t][e]=new A),this.demWorkerSources[t][e]},\\\"undefined\\\"!=typeof WorkerGlobalScope&&\\\"undefined\\\"!=typeof self&&self instanceof WorkerGlobalScope&&new qt(self),qt}),i(0,function(t){var e=t.createCommonjsModule(function(t){function e(t){return!!(\\\"undefined\\\"!=typeof window&&\\\"undefined\\\"!=typeof document&&Array.prototype&&Array.prototype.every&&Array.prototype.filter&&Array.prototype.forEach&&Array.prototype.indexOf&&Array.prototype.lastIndexOf&&Array.prototype.map&&Array.prototype.some&&Array.prototype.reduce&&Array.prototype.reduceRight&&Array.isArray&&Function.prototype&&Function.prototype.bind&&Object.keys&&Object.create&&Object.getPrototypeOf&&Object.getOwnPropertyNames&&Object.isSealed&&Object.isFrozen&&Object.isExtensible&&Object.getOwnPropertyDescriptor&&Object.defineProperty&&Object.defineProperties&&Object.seal&&Object.freeze&&Object.preventExtensions&&\\\"JSON\\\"in window&&\\\"parse\\\"in JSON&&\\\"stringify\\\"in JSON&&function(){if(!(\\\"Worker\\\"in window&&\\\"Blob\\\"in window&&\\\"URL\\\"in window))return!1;var t,e,r=new Blob([\\\"\\\"],{type:\\\"text/javascript\\\"}),n=URL.createObjectURL(r);try{e=new Worker(n),t=!0}catch(e){t=!1}return e&&e.terminate(),URL.revokeObjectURL(n),t}()&&\\\"Uint8ClampedArray\\\"in window&&function(t){return void 0===r[t]&&(r[t]=function(t){var r=document.createElement(\\\"canvas\\\"),n=Object.create(e.webGLContextAttributes);return n.failIfMajorPerformanceCaveat=t,r.probablySupportsContext?r.probablySupportsContext(\\\"webgl\\\",n)||r.probablySupportsContext(\\\"experimental-webgl\\\",n):r.supportsContext?r.supportsContext(\\\"webgl\\\",n)||r.supportsContext(\\\"experimental-webgl\\\",n):r.getContext(\\\"webgl\\\",n)||r.getContext(\\\"experimental-webgl\\\",n)}(t)),r[t]}(t&&t.failIfMajorPerformanceCaveat))}t.exports?t.exports=e:window&&(window.mapboxgl=window.mapboxgl||{},window.mapboxgl.supported=e);var r={};e.webGLContextAttributes={antialias:!1,alpha:!0,stencil:!0,depth:!0}}),r=t.default.performance&&t.default.performance.now?t.default.performance.now.bind(t.default.performance):Date.now.bind(Date),n=t.default.requestAnimationFrame||t.default.mozRequestAnimationFrame||t.default.webkitRequestAnimationFrame||t.default.msRequestAnimationFrame,i=t.default.cancelAnimationFrame||t.default.mozCancelAnimationFrame||t.default.webkitCancelAnimationFrame||t.default.msCancelAnimationFrame,a={now:r,frame:function(t){return n(t)},cancelFrame:function(t){return i(t)},getImageData:function(e){var r=t.default.document.createElement(\\\"canvas\\\"),n=r.getContext(\\\"2d\\\");if(!n)throw new Error(\\\"failed to create canvas 2d context\\\");return r.width=e.width,r.height=e.height,n.drawImage(e,0,0,e.width,e.height),n.getImageData(0,0,e.width,e.height)},hardwareConcurrency:t.default.navigator.hardwareConcurrency||4,get devicePixelRatio(){return t.default.devicePixelRatio},supportsWebp:!1};if(t.default.document){var o=t.default.document.createElement(\\\"img\\\");o.onload=function(){a.supportsWebp=!0},o.src=\\\"data:image/webp;base64,UklGRh4AAABXRUJQVlA4TBEAAAAvAQAAAAfQ//73v/+BiOh/AAA=\\\"}var s={create:function(e,r,n){var i=t.default.document.createElement(e);return r&&(i.className=r),n&&n.appendChild(i),i},createNS:function(e,r){return t.default.document.createElementNS(e,r)}},l=t.default.document?t.default.document.documentElement.style:null;function c(t){if(!l)return null;for(var e=0;e<t.length;e++)if(t[e]in l)return t[e];return t[0]}var u,f=c([\\\"userSelect\\\",\\\"MozUserSelect\\\",\\\"WebkitUserSelect\\\",\\\"msUserSelect\\\"]);s.disableDrag=function(){l&&f&&(u=l[f],l[f]=\\\"none\\\")},s.enableDrag=function(){l&&f&&(l[f]=u)};var h=c([\\\"transform\\\",\\\"WebkitTransform\\\"]);s.setTransform=function(t,e){t.style[h]=e};var p=!1;try{var d=Object.defineProperty({},\\\"passive\\\",{get:function(){p=!0}});t.default.addEventListener(\\\"test\\\",d,d),t.default.removeEventListener(\\\"test\\\",d,d)}catch(t){p=!1}s.addEventListener=function(t,e,r,n){void 0===n&&(n={}),\\\"passive\\\"in n&&p?t.addEventListener(e,r,n):t.addEventListener(e,r,n.capture)},s.removeEventListener=function(t,e,r,n){void 0===n&&(n={}),\\\"passive\\\"in n&&p?t.removeEventListener(e,r,n):t.removeEventListener(e,r,n.capture)};var g=function(e){e.preventDefault(),e.stopPropagation(),t.default.removeEventListener(\\\"click\\\",g,!0)};s.suppressClick=function(){t.default.addEventListener(\\\"click\\\",g,!0),t.default.setTimeout(function(){t.default.removeEventListener(\\\"click\\\",g,!0)},0)},s.mousePos=function(e,r){var n=e.getBoundingClientRect();return r=r.touches?r.touches[0]:r,new t.default$1(r.clientX-n.left-e.clientLeft,r.clientY-n.top-e.clientTop)},s.touchPos=function(e,r){for(var n=e.getBoundingClientRect(),i=[],a=\\\"touchend\\\"===r.type?r.changedTouches:r.touches,o=0;o<a.length;o++)i.push(new t.default$1(a[o].clientX-n.left-e.clientLeft,a[o].clientY-n.top-e.clientTop));return i},s.mouseButton=function(e){return void 0!==t.default.InstallTrigger&&2===e.button&&e.ctrlKey&&t.default.navigator.platform.toUpperCase().indexOf(\\\"MAC\\\")>=0?0:e.button},s.remove=function(t){t.parentNode&&t.parentNode.removeChild(t)};var v={API_URL:\\\"https://api.mapbox.com\\\",REQUIRE_ACCESS_TOKEN:!0,ACCESS_TOKEN:null},m=\\\"See https://www.mapbox.com/api-documentation/#access-tokens\\\";function y(t,e){var r=A(v.API_URL);if(t.protocol=r.protocol,t.authority=r.authority,\\\"/\\\"!==r.path&&(t.path=\\\"\\\"+r.path+t.path),!v.REQUIRE_ACCESS_TOKEN)return M(t);if(!(e=e||v.ACCESS_TOKEN))throw new Error(\\\"An API access token is required to use Mapbox GL. \\\"+m);if(\\\"s\\\"===e[0])throw new Error(\\\"Use a public access token (pk.*) with Mapbox GL, not a secret access token (sk.*). \\\"+m);return t.params.push(\\\"access_token=\\\"+e),M(t)}function x(t){return 0===t.indexOf(\\\"mapbox:\\\")}var b=function(t,e){if(!x(t))return t;var r=A(t);return r.path=\\\"/v4/\\\"+r.authority+\\\".json\\\",r.params.push(\\\"secure\\\"),y(r,e)},_=function(t,e,r,n){var i=A(t);return x(t)?(i.path=\\\"/styles/v1\\\"+i.path+\\\"/sprite\\\"+e+r,y(i,n)):(i.path+=\\\"\\\"+e+r,M(i))},w=/(\\\\.(png|jpg)\\\\d*)(?=$)/,k=function(t,e,r){if(!e||!x(e))return t;var n=A(t),i=a.devicePixelRatio>=2||512===r?\\\"@2x\\\":\\\"\\\",o=a.supportsWebp?\\\".webp\\\":\\\"$1\\\";return n.path=n.path.replace(w,\\\"\\\"+i+o),function(t){for(var e=0;e<t.length;e++)0===t[e].indexOf(\\\"access_token=tk.\\\")&&(t[e]=\\\"access_token=\\\"+(v.ACCESS_TOKEN||\\\"\\\"))}(n.params),M(n)},T=/^(\\\\w+):\\\\/\\\\/([^\\\\/?]*)(\\\\/[^?]+)?\\\\??(.+)?/;function A(t){var e=t.match(T);if(!e)throw new Error(\\\"Unable to parse URL object\\\");return{protocol:e[1],authority:e[2],path:e[3]||\\\"/\\\",params:e[4]?e[4].split(\\\"&\\\"):[]}}function M(t){var e=t.params.length?\\\"?\\\"+t.params.join(\\\"&\\\"):\\\"\\\";return t.protocol+\\\"://\\\"+t.authority+t.path+e}var S=t.default.HTMLImageElement,E=t.default.HTMLCanvasElement,C=t.default.HTMLVideoElement,L=t.default.ImageData,z=function(t,e,r,n){this.context=t,this.format=r,this.texture=t.gl.createTexture(),this.update(e,n)};z.prototype.update=function(t,e){var r=t.width,n=t.height,i=!this.size||this.size[0]!==r||this.size[1]!==n,a=this.context,o=a.gl;this.useMipmap=Boolean(e&&e.useMipmap),o.bindTexture(o.TEXTURE_2D,this.texture),i?(this.size=[r,n],a.pixelStoreUnpack.set(1),this.format!==o.RGBA||e&&!1===e.premultiply||a.pixelStoreUnpackPremultiplyAlpha.set(!0),t instanceof S||t instanceof E||t instanceof C||t instanceof L?o.texImage2D(o.TEXTURE_2D,0,this.format,this.format,o.UNSIGNED_BYTE,t):o.texImage2D(o.TEXTURE_2D,0,this.format,r,n,0,this.format,o.UNSIGNED_BYTE,t.data)):t instanceof S||t instanceof E||t instanceof C||t instanceof L?o.texSubImage2D(o.TEXTURE_2D,0,0,0,o.RGBA,o.UNSIGNED_BYTE,t):o.texSubImage2D(o.TEXTURE_2D,0,0,0,r,n,o.RGBA,o.UNSIGNED_BYTE,t.data),this.useMipmap&&this.isSizePowerOfTwo()&&o.generateMipmap(o.TEXTURE_2D)},z.prototype.bind=function(t,e,r){var n=this.context.gl;n.bindTexture(n.TEXTURE_2D,this.texture),r!==n.LINEAR_MIPMAP_NEAREST||this.isSizePowerOfTwo()||(r=n.LINEAR),t!==this.filter&&(n.texParameteri(n.TEXTURE_2D,n.TEXTURE_MAG_FILTER,t),n.texParameteri(n.TEXTURE_2D,n.TEXTURE_MIN_FILTER,r||t),this.filter=t),e!==this.wrap&&(n.texParameteri(n.TEXTURE_2D,n.TEXTURE_WRAP_S,e),n.texParameteri(n.TEXTURE_2D,n.TEXTURE_WRAP_T,e),this.wrap=e)},z.prototype.isSizePowerOfTwo=function(){return this.size[0]===this.size[1]&&Math.log(this.size[0])/Math.LN2%1==0},z.prototype.destroy=function(){this.context.gl.deleteTexture(this.texture),this.texture=null};var O=function(){this.images={},this.loaded=!1,this.requestors=[],this.shelfPack=new t.default$2(64,64,{autoResize:!0}),this.patterns={},this.atlasImage=new t.RGBAImage({width:64,height:64}),this.dirty=!0};O.prototype.isLoaded=function(){return this.loaded},O.prototype.setLoaded=function(t){if(this.loaded!==t&&(this.loaded=t,t)){for(var e=0,r=this.requestors;e<r.length;e+=1){var n=r[e],i=n.ids,a=n.callback;this._notify(i,a)}this.requestors=[]}},O.prototype.getImage=function(t){return this.images[t]},O.prototype.addImage=function(t,e){this.images[t]=e},O.prototype.removeImage=function(t){delete this.images[t];var e=this.patterns[t];e&&(this.shelfPack.unref(e.bin),delete this.patterns[t])},O.prototype.getImages=function(t,e){var r=!0;if(!this.isLoaded())for(var n=0,i=t;n<i.length;n+=1){var a=i[n];this.images[a]||(r=!1)}this.isLoaded()||r?this._notify(t,e):this.requestors.push({ids:t,callback:e})},O.prototype._notify=function(t,e){for(var r={},n=0,i=t;n<i.length;n+=1){var a=i[n],o=this.images[a];o&&(r[a]={data:o.data.clone(),pixelRatio:o.pixelRatio,sdf:o.sdf})}e(null,r)},O.prototype.getPixelSize=function(){return{width:this.shelfPack.w,height:this.shelfPack.h}},O.prototype.getPattern=function(e){var r=this.patterns[e];if(r)return r.position;var n=this.getImage(e);if(!n)return null;var i=n.data.width+2,a=n.data.height+2,o=this.shelfPack.packOne(i,a);if(!o)return null;this.atlasImage.resize(this.getPixelSize());var s=n.data,l=this.atlasImage,c=o.x+1,u=o.y+1,f=s.width,h=s.height;t.RGBAImage.copy(s,l,{x:0,y:0},{x:c,y:u},{width:f,height:h}),t.RGBAImage.copy(s,l,{x:0,y:h-1},{x:c,y:u-1},{width:f,height:1}),t.RGBAImage.copy(s,l,{x:0,y:0},{x:c,y:u+h},{width:f,height:1}),t.RGBAImage.copy(s,l,{x:f-1,y:0},{x:c-1,y:u},{width:1,height:h}),t.RGBAImage.copy(s,l,{x:0,y:0},{x:c+f,y:u},{width:1,height:h}),this.dirty=!0;var p=new t.ImagePosition(o,n);return this.patterns[e]={bin:o,position:p},p},O.prototype.bind=function(t){var e=t.gl;this.atlasTexture?this.dirty&&(this.atlasTexture.update(this.atlasImage),this.dirty=!1):this.atlasTexture=new z(t,this.atlasImage,e.RGBA),this.atlasTexture.bind(e.LINEAR,e.CLAMP_TO_EDGE)};var I=P,D=1e20;function P(t,e,r,n,i,a){this.fontSize=t||24,this.buffer=void 0===e?3:e,this.cutoff=n||.25,this.fontFamily=i||\\\"sans-serif\\\",this.fontWeight=a||\\\"normal\\\",this.radius=r||8;var o=this.size=this.fontSize+2*this.buffer;this.canvas=document.createElement(\\\"canvas\\\"),this.canvas.width=this.canvas.height=o,this.ctx=this.canvas.getContext(\\\"2d\\\"),this.ctx.font=this.fontWeight+\\\" \\\"+this.fontSize+\\\"px \\\"+this.fontFamily,this.ctx.textBaseline=\\\"middle\\\",this.ctx.fillStyle=\\\"black\\\",this.gridOuter=new Float64Array(o*o),this.gridInner=new Float64Array(o*o),this.f=new Float64Array(o),this.d=new Float64Array(o),this.z=new Float64Array(o+1),this.v=new Int16Array(o),this.middle=Math.round(o/2*(navigator.userAgent.indexOf(\\\"Gecko/\\\")>=0?1.2:1))}function R(t,e,r,n,i,a,o){for(var s=0;s<e;s++){for(var l=0;l<r;l++)n[l]=t[l*e+s];for(F(n,i,a,o,r),l=0;l<r;l++)t[l*e+s]=i[l]}for(l=0;l<r;l++){for(s=0;s<e;s++)n[s]=t[l*e+s];for(F(n,i,a,o,e),s=0;s<e;s++)t[l*e+s]=Math.sqrt(i[s])}}function F(t,e,r,n,i){r[0]=0,n[0]=-D,n[1]=+D;for(var a=1,o=0;a<i;a++){for(var s=(t[a]+a*a-(t[r[o]]+r[o]*r[o]))/(2*a-2*r[o]);s<=n[o];)o--,s=(t[a]+a*a-(t[r[o]]+r[o]*r[o]))/(2*a-2*r[o]);r[++o]=a,n[o]=s,n[o+1]=+D}for(a=0,o=0;a<i;a++){for(;n[o+1]<a;)o++;e[a]=(a-r[o])*(a-r[o])+t[r[o]]}}P.prototype.draw=function(t){this.ctx.clearRect(0,0,this.size,this.size),this.ctx.fillText(t,this.buffer,this.middle);for(var e=this.ctx.getImageData(0,0,this.size,this.size),r=new Uint8ClampedArray(this.size*this.size),n=0;n<this.size*this.size;n++){var i=e.data[4*n+3]/255;this.gridOuter[n]=1===i?0:0===i?D:Math.pow(Math.max(0,.5-i),2),this.gridInner[n]=1===i?D:0===i?0:Math.pow(Math.max(0,i-.5),2)}for(R(this.gridOuter,this.size,this.size,this.f,this.d,this.v,this.z),R(this.gridInner,this.size,this.size,this.f,this.d,this.v,this.z),n=0;n<this.size*this.size;n++){var a=this.gridOuter[n]-this.gridInner[n];r[n]=Math.max(0,Math.min(255,Math.round(255-255*(a/this.radius+this.cutoff))))}return r};var B=function(t,e){this.requestTransform=t,this.localIdeographFontFamily=e,this.entries={}};B.prototype.setURL=function(t){this.url=t},B.prototype.getGlyphs=function(e,r){var n=this,i=[];for(var a in e)for(var o=0,s=e[a];o<s.length;o+=1){var l=s[o];i.push({stack:a,id:l})}t.asyncAll(i,function(t,e){var r=t.stack,i=t.id,a=n.entries[r];a||(a=n.entries[r]={glyphs:{},requests:{}});var o=a.glyphs[i];if(void 0===o)if(o=n._tinySDF(a,r,i))e(null,{stack:r,id:i,glyph:o});else{var s=Math.floor(i/256);if(256*s>65535)e(new Error(\\\"glyphs > 65535 not supported\\\"));else{var l=a.requests[s];l||(l=a.requests[s]=[],B.loadGlyphRange(r,s,n.url,n.requestTransform,function(t,e){if(e)for(var r in e)a.glyphs[+r]=e[+r];for(var n=0,i=l;n<i.length;n+=1)(0,i[n])(t,e);delete a.requests[s]})),l.push(function(t,n){t?e(t):n&&e(null,{stack:r,id:i,glyph:n[i]||null})})}}else e(null,{stack:r,id:i,glyph:o})},function(t,e){if(t)r(t);else if(e){for(var n={},i=0,a=e;i<a.length;i+=1){var o=a[i],s=o.stack,l=o.id,c=o.glyph;(n[s]||(n[s]={}))[l]=c&&{id:c.id,bitmap:c.bitmap.clone(),metrics:c.metrics}}r(null,n)}})},B.prototype._tinySDF=function(e,r,n){var i=this.localIdeographFontFamily;if(i&&(t.default$4[\\\"CJK Unified Ideographs\\\"](n)||t.default$4[\\\"Hangul Syllables\\\"](n))){var a=e.tinySDF;if(!a){var o=\\\"400\\\";/bold/i.test(r)?o=\\\"900\\\":/medium/i.test(r)?o=\\\"500\\\":/light/i.test(r)&&(o=\\\"200\\\"),a=e.tinySDF=new B.TinySDF(24,3,8,.25,i,o)}return{id:n,bitmap:new t.AlphaImage({width:30,height:30},a.draw(String.fromCharCode(n))),metrics:{width:24,height:24,left:0,top:-8,advance:24}}}},B.loadGlyphRange=function(e,r,n,i,a){var o=256*r,s=o+255,l=i(function(t,e){if(!x(t))return t;var r=A(t);return r.path=\\\"/fonts/v1\\\"+r.path,y(r,e)}(n).replace(\\\"{fontstack}\\\",e).replace(\\\"{range}\\\",o+\\\"-\\\"+s),t.ResourceType.Glyphs);t.getArrayBuffer(l,function(e,r){if(e)a(e);else if(r){for(var n={},i=0,o=t.default$3(r.data);i<o.length;i+=1){var s=o[i];n[s.id]=s}a(null,n)}})},B.TinySDF=I;var N=function(){this.specification=t.default$5.light.position};N.prototype.possiblyEvaluate=function(e,r){return t.sphericalToCartesian(e.expression.evaluate(r))},N.prototype.interpolate=function(e,r,n){return{x:t.number(e.x,r.x,n),y:t.number(e.y,r.y,n),z:t.number(e.z,r.z,n)}};var j=new t.Properties({anchor:new t.DataConstantProperty(t.default$5.light.anchor),position:new N,color:new t.DataConstantProperty(t.default$5.light.color),intensity:new t.DataConstantProperty(t.default$5.light.intensity)}),V=function(e){function r(r){e.call(this),this._transitionable=new t.Transitionable(j),this.setLight(r),this._transitioning=this._transitionable.untransitioned()}return e&&(r.__proto__=e),r.prototype=Object.create(e&&e.prototype),r.prototype.constructor=r,r.prototype.getLight=function(){return this._transitionable.serialize()},r.prototype.setLight=function(e){if(!this._validate(t.validateLight,e))for(var r in e){var n=e[r];t.endsWith(r,\\\"-transition\\\")?this._transitionable.setTransition(r.slice(0,-\\\"-transition\\\".length),n):this._transitionable.setValue(r,n)}},r.prototype.updateTransitions=function(t){this._transitioning=this._transitionable.transitioned(t,this._transitioning)},r.prototype.hasTransition=function(){return this._transitioning.hasTransition()},r.prototype.recalculate=function(t){this.properties=this._transitioning.possiblyEvaluate(t)},r.prototype._validate=function(e,r){return t.emitValidationErrors(this,e.call(t.validateStyle,t.extend({value:r,style:{glyphs:!0,sprite:!0},styleSpec:t.default$5})))},r}(t.Evented),U=function(t,e){this.width=t,this.height=e,this.nextRow=0,this.bytes=4,this.data=new Uint8Array(this.width*this.height*this.bytes),this.positions={}};U.prototype.getDash=function(t,e){var r=t.join(\\\",\\\")+String(e);return this.positions[r]||(this.positions[r]=this.addDash(t,e)),this.positions[r]},U.prototype.addDash=function(e,r){var n=r?7:0,i=2*n+1;if(this.nextRow+i>this.height)return t.warnOnce(\\\"LineAtlas out of space\\\"),null;for(var a=0,o=0;o<e.length;o++)a+=e[o];for(var s=this.width/a,l=s/2,c=e.length%2==1,u=-n;u<=n;u++)for(var f=this.nextRow+n+u,h=this.width*f,p=c?-e[e.length-1]:0,d=e[0],g=1,v=0;v<this.width;v++){for(;d<v/s;)p=d,d+=e[g],c&&g===e.length-1&&(d+=e[0]),g++;var m=Math.abs(v-p*s),y=Math.abs(v-d*s),x=Math.min(m,y),b=g%2==1,_=void 0;if(r){var w=n?u/n*(l+1):0;if(b){var k=l-Math.abs(w);_=Math.sqrt(x*x+k*k)}else _=l-Math.sqrt(x*x+w*w)}else _=(b?1:-1)*x;this.data[3+4*(h+v)]=Math.max(0,Math.min(255,_+128))}var T={y:(this.nextRow+n+.5)/this.height,height:2*n/this.height,width:a};return this.nextRow+=i,this.dirty=!0,T},U.prototype.bind=function(t){var e=t.gl;this.texture?(e.bindTexture(e.TEXTURE_2D,this.texture),this.dirty&&(this.dirty=!1,e.texSubImage2D(e.TEXTURE_2D,0,0,0,this.width,this.height,e.RGBA,e.UNSIGNED_BYTE,this.data))):(this.texture=e.createTexture(),e.bindTexture(e.TEXTURE_2D,this.texture),e.texParameteri(e.TEXTURE_2D,e.TEXTURE_WRAP_S,e.REPEAT),e.texParameteri(e.TEXTURE_2D,e.TEXTURE_WRAP_T,e.REPEAT),e.texParameteri(e.TEXTURE_2D,e.TEXTURE_MIN_FILTER,e.LINEAR),e.texParameteri(e.TEXTURE_2D,e.TEXTURE_MAG_FILTER,e.LINEAR),e.texImage2D(e.TEXTURE_2D,0,e.RGBA,this.width,this.height,0,e.RGBA,e.UNSIGNED_BYTE,this.data))};var H=function e(r,n){this.workerPool=r,this.actors=[],this.currentActor=0,this.id=t.uniqueId();for(var i=this.workerPool.acquire(this.id),a=0;a<i.length;a++){var o=i[a],s=new e.Actor(o,n,this.id);s.name=\\\"Worker \\\"+a,this.actors.push(s)}};function q(e,r,n){var i=function(e,r){if(e)return n(e);if(r){var i=t.pick(r,[\\\"tiles\\\",\\\"minzoom\\\",\\\"maxzoom\\\",\\\"attribution\\\",\\\"mapbox_logo\\\",\\\"bounds\\\"]);r.vector_layers&&(i.vectorLayers=r.vector_layers,i.vectorLayerIds=i.vectorLayers.map(function(t){return t.id})),n(null,i)}};e.url?t.getJSON(r(b(e.url),t.ResourceType.Source),i):a.frame(function(){return i(null,e)})}H.prototype.broadcast=function(e,r,n){n=n||function(){},t.asyncAll(this.actors,function(t,n){t.send(e,r,n)},n)},H.prototype.send=function(t,e,r,n){return(\\\"number\\\"!=typeof n||isNaN(n))&&(n=this.currentActor=(this.currentActor+1)%this.actors.length),this.actors[n].send(t,e,r),n},H.prototype.remove=function(){this.actors.forEach(function(t){t.remove()}),this.actors=[],this.workerPool.release(this.id)},H.Actor=t.default$7;var G=function(t,e){if(isNaN(t)||isNaN(e))throw new Error(\\\"Invalid LngLat object: (\\\"+t+\\\", \\\"+e+\\\")\\\");if(this.lng=+t,this.lat=+e,this.lat>90||this.lat<-90)throw new Error(\\\"Invalid LngLat latitude value: must be between -90 and 90\\\")};G.prototype.wrap=function(){return new G(t.wrap(this.lng,-180,180),this.lat)},G.prototype.toArray=function(){return[this.lng,this.lat]},G.prototype.toString=function(){return\\\"LngLat(\\\"+this.lng+\\\", \\\"+this.lat+\\\")\\\"},G.prototype.toBounds=function(t){var e=360*t/40075017,r=e/Math.cos(Math.PI/180*this.lat);return new Y(new G(this.lng-r,this.lat-e),new G(this.lng+r,this.lat+e))},G.convert=function(t){if(t instanceof G)return t;if(Array.isArray(t)&&(2===t.length||3===t.length))return new G(Number(t[0]),Number(t[1]));if(!Array.isArray(t)&&\\\"object\\\"==typeof t&&null!==t)return new G(Number(t.lng),Number(t.lat));throw new Error(\\\"`LngLatLike` argument must be specified as a LngLat instance, an object {lng: <lng>, lat: <lat>}, or an array of [<lng>, <lat>]\\\")};var Y=function(t,e){t&&(e?this.setSouthWest(t).setNorthEast(e):4===t.length?this.setSouthWest([t[0],t[1]]).setNorthEast([t[2],t[3]]):this.setSouthWest(t[0]).setNorthEast(t[1]))};Y.prototype.setNorthEast=function(t){return this._ne=t instanceof G?new G(t.lng,t.lat):G.convert(t),this},Y.prototype.setSouthWest=function(t){return this._sw=t instanceof G?new G(t.lng,t.lat):G.convert(t),this},Y.prototype.extend=function(t){var e,r,n=this._sw,i=this._ne;if(t instanceof G)e=t,r=t;else{if(!(t instanceof Y))return Array.isArray(t)?t.every(Array.isArray)?this.extend(Y.convert(t)):this.extend(G.convert(t)):this;if(e=t._sw,r=t._ne,!e||!r)return this}return n||i?(n.lng=Math.min(e.lng,n.lng),n.lat=Math.min(e.lat,n.lat),i.lng=Math.max(r.lng,i.lng),i.lat=Math.max(r.lat,i.lat)):(this._sw=new G(e.lng,e.lat),this._ne=new G(r.lng,r.lat)),this},Y.prototype.getCenter=function(){return new G((this._sw.lng+this._ne.lng)/2,(this._sw.lat+this._ne.lat)/2)},Y.prototype.getSouthWest=function(){return this._sw},Y.prototype.getNorthEast=function(){return this._ne},Y.prototype.getNorthWest=function(){return new G(this.getWest(),this.getNorth())},Y.prototype.getSouthEast=function(){return new G(this.getEast(),this.getSouth())},Y.prototype.getWest=function(){return this._sw.lng},Y.prototype.getSouth=function(){return this._sw.lat},Y.prototype.getEast=function(){return this._ne.lng},Y.prototype.getNorth=function(){return this._ne.lat},Y.prototype.toArray=function(){return[this._sw.toArray(),this._ne.toArray()]},Y.prototype.toString=function(){return\\\"LngLatBounds(\\\"+this._sw.toString()+\\\", \\\"+this._ne.toString()+\\\")\\\"},Y.prototype.isEmpty=function(){return!(this._sw&&this._ne)},Y.convert=function(t){return!t||t instanceof Y?t:new Y(t)};var W=function(t,e,r){this.bounds=Y.convert(this.validateBounds(t)),this.minzoom=e||0,this.maxzoom=r||24};W.prototype.validateBounds=function(t){return Array.isArray(t)&&4===t.length?[Math.max(-180,t[0]),Math.max(-90,t[1]),Math.min(180,t[2]),Math.min(90,t[3])]:[-180,-90,180,90]},W.prototype.contains=function(t){var e=Math.floor(this.lngX(this.bounds.getWest(),t.z)),r=Math.floor(this.latY(this.bounds.getNorth(),t.z)),n=Math.ceil(this.lngX(this.bounds.getEast(),t.z)),i=Math.ceil(this.latY(this.bounds.getSouth(),t.z));return t.x>=e&&t.x<n&&t.y>=r&&t.y<i},W.prototype.lngX=function(t,e){return(t+180)*(Math.pow(2,e)/360)},W.prototype.latY=function(e,r){var n=t.clamp(Math.sin(Math.PI/180*e),-.9999,.9999),i=Math.pow(2,r)/(2*Math.PI);return Math.pow(2,r-1)+.5*Math.log((1+n)/(1-n))*-i};var X=function(e){function r(r,n,i,a){if(e.call(this),this.id=r,this.dispatcher=i,this.type=\\\"vector\\\",this.minzoom=0,this.maxzoom=22,this.scheme=\\\"xyz\\\",this.tileSize=512,this.reparseOverscaled=!0,this.isTileClipped=!0,t.extend(this,t.pick(n,[\\\"url\\\",\\\"scheme\\\",\\\"tileSize\\\"])),this._options=t.extend({type:\\\"vector\\\"},n),this._collectResourceTiming=n.collectResourceTiming,512!==this.tileSize)throw new Error(\\\"vector tile sources must have a tileSize of 512\\\");this.setEventedParent(a)}return e&&(r.__proto__=e),r.prototype=Object.create(e&&e.prototype),r.prototype.constructor=r,r.prototype.load=function(){var e=this;this.fire(new t.Event(\\\"dataloading\\\",{dataType:\\\"source\\\"})),q(this._options,this.map._transformRequest,function(r,n){r?e.fire(new t.ErrorEvent(r)):n&&(t.extend(e,n),n.bounds&&(e.tileBounds=new W(n.bounds,e.minzoom,e.maxzoom)),e.fire(new t.Event(\\\"data\\\",{dataType:\\\"source\\\",sourceDataType:\\\"metadata\\\"})),e.fire(new t.Event(\\\"data\\\",{dataType:\\\"source\\\",sourceDataType:\\\"content\\\"})))})},r.prototype.hasTile=function(t){return!this.tileBounds||this.tileBounds.contains(t.canonical)},r.prototype.onAdd=function(t){this.map=t,this.load()},r.prototype.serialize=function(){return t.extend({},this._options)},r.prototype.loadTile=function(e,r){var n=k(e.tileID.canonical.url(this.tiles,this.scheme),this.url),i={request:this.map._transformRequest(n,t.ResourceType.Tile),uid:e.uid,tileID:e.tileID,zoom:e.tileID.overscaledZ,tileSize:this.tileSize*e.tileID.overscaleFactor(),type:this.type,source:this.id,pixelRatio:a.devicePixelRatio,showCollisionBoxes:this.map.showCollisionBoxes};function o(t,n){return e.aborted?r(null):t?r(t):(n&&n.resourceTiming&&(e.resourceTiming=n.resourceTiming),this.map._refreshExpiredTiles&&e.setExpiryData(n),e.loadVectorData(n,this.map.painter),r(null),void(e.reloadCallback&&(this.loadTile(e,e.reloadCallback),e.reloadCallback=null)))}i.request.collectResourceTiming=this._collectResourceTiming,void 0===e.workerID||\\\"expired\\\"===e.state?e.workerID=this.dispatcher.send(\\\"loadTile\\\",i,o.bind(this)):\\\"loading\\\"===e.state?e.reloadCallback=r:this.dispatcher.send(\\\"reloadTile\\\",i,o.bind(this),e.workerID)},r.prototype.abortTile=function(t){this.dispatcher.send(\\\"abortTile\\\",{uid:t.uid,type:this.type,source:this.id},void 0,t.workerID)},r.prototype.unloadTile=function(t){t.unloadVectorData(),this.dispatcher.send(\\\"removeTile\\\",{uid:t.uid,type:this.type,source:this.id},void 0,t.workerID)},r.prototype.hasTransition=function(){return!1},r}(t.Evented),Z=function(e){function r(r,n,i,a){e.call(this),this.id=r,this.dispatcher=i,this.setEventedParent(a),this.type=\\\"raster\\\",this.minzoom=0,this.maxzoom=22,this.roundZoom=!0,this.scheme=\\\"xyz\\\",this.tileSize=512,this._loaded=!1,this._options=t.extend({},n),t.extend(this,t.pick(n,[\\\"url\\\",\\\"scheme\\\",\\\"tileSize\\\"]))}return e&&(r.__proto__=e),r.prototype=Object.create(e&&e.prototype),r.prototype.constructor=r,r.prototype.load=function(){var e=this;this.fire(new t.Event(\\\"dataloading\\\",{dataType:\\\"source\\\"})),q(this._options,this.map._transformRequest,function(r,n){r?e.fire(new t.ErrorEvent(r)):n&&(t.extend(e,n),n.bounds&&(e.tileBounds=new W(n.bounds,e.minzoom,e.maxzoom)),e.fire(new t.Event(\\\"data\\\",{dataType:\\\"source\\\",sourceDataType:\\\"metadata\\\"})),e.fire(new t.Event(\\\"data\\\",{dataType:\\\"source\\\",sourceDataType:\\\"content\\\"})))})},r.prototype.onAdd=function(t){this.map=t,this.load()},r.prototype.serialize=function(){return t.extend({},this._options)},r.prototype.hasTile=function(t){return!this.tileBounds||this.tileBounds.contains(t.canonical)},r.prototype.loadTile=function(e,r){var n=this,i=k(e.tileID.canonical.url(this.tiles,this.scheme),this.url,this.tileSize);e.request=t.getImage(this.map._transformRequest(i,t.ResourceType.Tile),function(t,i){if(delete e.request,e.aborted)e.state=\\\"unloaded\\\",r(null);else if(t)e.state=\\\"errored\\\",r(t);else if(i){n.map._refreshExpiredTiles&&e.setExpiryData(i),delete i.cacheControl,delete i.expires;var a=n.map.painter.context,o=a.gl;e.texture=n.map.painter.getTileTexture(i.width),e.texture?e.texture.update(i,{useMipmap:!0}):(e.texture=new z(a,i,o.RGBA,{useMipmap:!0}),e.texture.bind(o.LINEAR,o.CLAMP_TO_EDGE,o.LINEAR_MIPMAP_NEAREST),a.extTextureFilterAnisotropic&&o.texParameterf(o.TEXTURE_2D,a.extTextureFilterAnisotropic.TEXTURE_MAX_ANISOTROPY_EXT,a.extTextureFilterAnisotropicMax)),e.state=\\\"loaded\\\",r(null)}})},r.prototype.abortTile=function(t,e){t.request&&(t.request.abort(),delete t.request),e()},r.prototype.unloadTile=function(t,e){t.texture&&this.map.painter.saveTileTexture(t.texture),e()},r.prototype.hasTransition=function(){return!1},r}(t.Evented),$=function(e){function r(r,n,i,a){e.call(this,r,n,i,a),this.type=\\\"raster-dem\\\",this.maxzoom=22,this._options=t.extend({},n),this.encoding=n.encoding||\\\"mapbox\\\"}return e&&(r.__proto__=e),r.prototype=Object.create(e&&e.prototype),r.prototype.constructor=r,r.prototype.serialize=function(){return{type:\\\"raster-dem\\\",url:this.url,tileSize:this.tileSize,tiles:this.tiles,bounds:this.bounds,encoding:this.encoding}},r.prototype.loadTile=function(e,r){var n=k(e.tileID.canonical.url(this.tiles,this.scheme),this.url,this.tileSize);e.request=t.getImage(this.map._transformRequest(n,t.ResourceType.Tile),function(t,n){if(delete e.request,e.aborted)e.state=\\\"unloaded\\\",r(null);else if(t)e.state=\\\"errored\\\",r(t);else if(n){this.map._refreshExpiredTiles&&e.setExpiryData(n),delete n.cacheControl,delete n.expires;var i=a.getImageData(n),o={uid:e.uid,coord:e.tileID,source:this.id,rawImageData:i,encoding:this.encoding};e.workerID&&\\\"expired\\\"!==e.state||(e.workerID=this.dispatcher.send(\\\"loadDEMTile\\\",o,function(t,n){t&&(e.state=\\\"errored\\\",r(t)),n&&(e.dem=n,e.needsHillshadePrepare=!0,e.state=\\\"loaded\\\",r(null))}.bind(this)))}}.bind(this)),e.neighboringTiles=this._getNeighboringTiles(e.tileID)},r.prototype._getNeighboringTiles=function(e){var r=e.canonical,n=Math.pow(2,r.z),i=(r.x-1+n)%n,a=0===r.x?e.wrap-1:e.wrap,o=(r.x+1+n)%n,s=r.x+1===n?e.wrap+1:e.wrap,l={};return l[new t.OverscaledTileID(e.overscaledZ,a,r.z,i,r.y).key]={backfilled:!1},l[new t.OverscaledTileID(e.overscaledZ,s,r.z,o,r.y).key]={backfilled:!1},r.y>0&&(l[new t.OverscaledTileID(e.overscaledZ,a,r.z,i,r.y-1).key]={backfilled:!1},l[new t.OverscaledTileID(e.overscaledZ,e.wrap,r.z,r.x,r.y-1).key]={backfilled:!1},l[new t.OverscaledTileID(e.overscaledZ,s,r.z,o,r.y-1).key]={backfilled:!1}),r.y+1<n&&(l[new t.OverscaledTileID(e.overscaledZ,a,r.z,i,r.y+1).key]={backfilled:!1},l[new t.OverscaledTileID(e.overscaledZ,e.wrap,r.z,r.x,r.y+1).key]={backfilled:!1},l[new t.OverscaledTileID(e.overscaledZ,s,r.z,o,r.y+1).key]={backfilled:!1}),l},r.prototype.unloadTile=function(t){t.demTexture&&this.map.painter.saveTileTexture(t.demTexture),t.fbo&&(t.fbo.destroy(),delete t.fbo),t.dem&&delete t.dem,delete t.neighboringTiles,t.state=\\\"unloaded\\\",this.dispatcher.send(\\\"removeDEMTile\\\",{uid:t.uid,source:this.id},void 0,t.workerID)},r}(Z),J=function(e){function r(r,n,i,a){e.call(this),this.id=r,this.type=\\\"geojson\\\",this.minzoom=0,this.maxzoom=18,this.tileSize=512,this.isTileClipped=!0,this.reparseOverscaled=!0,this._removed=!1,this.dispatcher=i,this.setEventedParent(a),this._data=n.data,this._options=t.extend({},n),this._collectResourceTiming=n.collectResourceTiming,this._resourceTiming=[],void 0!==n.maxzoom&&(this.maxzoom=n.maxzoom),n.type&&(this.type=n.type);var o=t.default$8/this.tileSize;this.workerOptions=t.extend({source:this.id,cluster:n.cluster||!1,geojsonVtOptions:{buffer:(void 0!==n.buffer?n.buffer:128)*o,tolerance:(void 0!==n.tolerance?n.tolerance:.375)*o,extent:t.default$8,maxZoom:this.maxzoom,lineMetrics:n.lineMetrics||!1},superclusterOptions:{maxZoom:void 0!==n.clusterMaxZoom?Math.min(n.clusterMaxZoom,this.maxzoom-1):this.maxzoom-1,extent:t.default$8,radius:(n.clusterRadius||50)*o,log:!1}},n.workerOptions)}return e&&(r.__proto__=e),r.prototype=Object.create(e&&e.prototype),r.prototype.constructor=r,r.prototype.load=function(){var e=this;this.fire(new t.Event(\\\"dataloading\\\",{dataType:\\\"source\\\"})),this._updateWorkerData(function(r){if(r)e.fire(new t.ErrorEvent(r));else{var n={dataType:\\\"source\\\",sourceDataType:\\\"metadata\\\"};e._collectResourceTiming&&e._resourceTiming&&e._resourceTiming.length>0&&(n.resourceTiming=e._resourceTiming,e._resourceTiming=[]),e.fire(new t.Event(\\\"data\\\",n))}})},r.prototype.onAdd=function(t){this.map=t,this.load()},r.prototype.setData=function(e){var r=this;return this._data=e,this.fire(new t.Event(\\\"dataloading\\\",{dataType:\\\"source\\\"})),this._updateWorkerData(function(e){if(e)return r.fire(new t.ErrorEvent(e));var n={dataType:\\\"source\\\",sourceDataType:\\\"content\\\"};r._collectResourceTiming&&r._resourceTiming&&r._resourceTiming.length>0&&(n.resourceTiming=r._resourceTiming,r._resourceTiming=[]),r.fire(new t.Event(\\\"data\\\",n))}),this},r.prototype._updateWorkerData=function(e){var r,n,i=this,a=t.extend({},this.workerOptions),o=this._data;\\\"string\\\"==typeof o?(a.request=this.map._transformRequest((r=o,(n=t.default.document.createElement(\\\"a\\\")).href=r,n.href),t.ResourceType.Source),a.request.collectResourceTiming=this._collectResourceTiming):a.data=JSON.stringify(o),this.workerID=this.dispatcher.send(this.type+\\\".\\\"+a.source+\\\".loadData\\\",a,function(t,r){i._removed||r&&r.abandoned||(i._loaded=!0,r&&r.resourceTiming&&r.resourceTiming[i.id]&&(i._resourceTiming=r.resourceTiming[i.id].slice(0)),i.dispatcher.send(i.type+\\\".\\\"+a.source+\\\".coalesce\\\",null,null,i.workerID),e(t))},this.workerID)},r.prototype.loadTile=function(t,e){var r=this,n=void 0===t.workerID?\\\"loadTile\\\":\\\"reloadTile\\\",i={type:this.type,uid:t.uid,tileID:t.tileID,zoom:t.tileID.overscaledZ,maxZoom:this.maxzoom,tileSize:this.tileSize,source:this.id,pixelRatio:a.devicePixelRatio,showCollisionBoxes:this.map.showCollisionBoxes};t.workerID=this.dispatcher.send(n,i,function(i,a){return t.unloadVectorData(),t.aborted?e(null):i?e(i):(t.loadVectorData(a,r.map.painter,\\\"reloadTile\\\"===n),e(null))},this.workerID)},r.prototype.abortTile=function(t){t.aborted=!0},r.prototype.unloadTile=function(t){t.unloadVectorData(),this.dispatcher.send(\\\"removeTile\\\",{uid:t.uid,type:this.type,source:this.id},null,t.workerID)},r.prototype.onRemove=function(){this._removed=!0,this.dispatcher.send(\\\"removeSource\\\",{type:this.type,source:this.id},null,this.workerID)},r.prototype.serialize=function(){return t.extend({},this._options,{type:this.type,data:this._data})},r.prototype.hasTransition=function(){return!1},r}(t.Evented),K=t.createLayout([{name:\\\"a_pos\\\",type:\\\"Int16\\\",components:2},{name:\\\"a_texture_pos\\\",type:\\\"Int16\\\",components:2}]),Q=function(){this.boundProgram=null,this.boundLayoutVertexBuffer=null,this.boundPaintVertexBuffers=[],this.boundIndexBuffer=null,this.boundVertexOffset=null,this.boundDynamicVertexBuffer=null,this.vao=null};Q.prototype.bind=function(t,e,r,n,i,a,o,s){this.context=t;for(var l=this.boundPaintVertexBuffers.length!==n.length,c=0;!l&&c<n.length;c++)this.boundPaintVertexBuffers[c]!==n[c]&&(l=!0);var u=!this.vao||this.boundProgram!==e||this.boundLayoutVertexBuffer!==r||l||this.boundIndexBuffer!==i||this.boundVertexOffset!==a||this.boundDynamicVertexBuffer!==o||this.boundDynamicVertexBuffer2!==s;!t.extVertexArrayObject||u?this.freshBind(e,r,n,i,a,o,s):(t.bindVertexArrayOES.set(this.vao),o&&o.bind(),i&&i.dynamicDraw&&i.bind(),s&&s.bind())},Q.prototype.freshBind=function(t,e,r,n,i,a,o){var s,l=t.numAttributes,c=this.context,u=c.gl;if(c.extVertexArrayObject)this.vao&&this.destroy(),this.vao=c.extVertexArrayObject.createVertexArrayOES(),c.bindVertexArrayOES.set(this.vao),s=0,this.boundProgram=t,this.boundLayoutVertexBuffer=e,this.boundPaintVertexBuffers=r,this.boundIndexBuffer=n,this.boundVertexOffset=i,this.boundDynamicVertexBuffer=a,this.boundDynamicVertexBuffer2=o;else{s=c.currentNumAttributes||0;for(var f=l;f<s;f++)u.disableVertexAttribArray(f)}e.enableAttributes(u,t);for(var h=0,p=r;h<p.length;h+=1)p[h].enableAttributes(u,t);a&&a.enableAttributes(u,t),o&&o.enableAttributes(u,t),e.bind(),e.setVertexAttribPointers(u,t,i);for(var d=0,g=r;d<g.length;d+=1){var v=g[d];v.bind(),v.setVertexAttribPointers(u,t,i)}a&&(a.bind(),a.setVertexAttribPointers(u,t,i)),n&&n.bind(),o&&(o.bind(),o.setVertexAttribPointers(u,t,i)),c.currentNumAttributes=l},Q.prototype.destroy=function(){this.vao&&(this.context.extVertexArrayObject.deleteVertexArrayOES(this.vao),this.vao=null)};var tt=function(e){function r(t,r,n,i){e.call(this),this.id=t,this.dispatcher=n,this.coordinates=r.coordinates,this.type=\\\"image\\\",this.minzoom=0,this.maxzoom=22,this.tileSize=512,this.tiles={},this.setEventedParent(i),this.options=r}return e&&(r.__proto__=e),r.prototype=Object.create(e&&e.prototype),r.prototype.constructor=r,r.prototype.load=function(){var e=this;this.fire(new t.Event(\\\"dataloading\\\",{dataType:\\\"source\\\"})),this.url=this.options.url,t.getImage(this.map._transformRequest(this.url,t.ResourceType.Image),function(r,n){r?e.fire(new t.ErrorEvent(r)):n&&(e.image=a.getImageData(n),e._finishLoading())})},r.prototype._finishLoading=function(){this.map&&(this.setCoordinates(this.coordinates),this.fire(new t.Event(\\\"data\\\",{dataType:\\\"source\\\",sourceDataType:\\\"metadata\\\"})))},r.prototype.onAdd=function(t){this.map=t,this.load()},r.prototype.setCoordinates=function(e){this.coordinates=e;var r=this.map,n=e.map(function(t){return r.transform.locationCoordinate(G.convert(t)).zoomTo(0)}),i=this.centerCoord=t.getCoordinatesCenter(n);i.column=Math.floor(i.column),i.row=Math.floor(i.row),this.tileID=new t.CanonicalTileID(i.zoom,i.column,i.row),this.minzoom=this.maxzoom=i.zoom;var a=n.map(function(e){var r=e.zoomTo(i.zoom);return new t.default$1(Math.round((r.column-i.column)*t.default$8),Math.round((r.row-i.row)*t.default$8))});return this._boundsArray=new t.RasterBoundsArray,this._boundsArray.emplaceBack(a[0].x,a[0].y,0,0),this._boundsArray.emplaceBack(a[1].x,a[1].y,t.default$8,0),this._boundsArray.emplaceBack(a[3].x,a[3].y,0,t.default$8),this._boundsArray.emplaceBack(a[2].x,a[2].y,t.default$8,t.default$8),this.boundsBuffer&&(this.boundsBuffer.destroy(),delete this.boundsBuffer),this.fire(new t.Event(\\\"data\\\",{dataType:\\\"source\\\",sourceDataType:\\\"content\\\"})),this},r.prototype.prepare=function(){if(0!==Object.keys(this.tiles).length&&this.image){var t=this.map.painter.context,e=t.gl;for(var r in this.boundsBuffer||(this.boundsBuffer=t.createVertexBuffer(this._boundsArray,K.members)),this.boundsVAO||(this.boundsVAO=new Q),this.texture||(this.texture=new z(t,this.image,e.RGBA),this.texture.bind(e.LINEAR,e.CLAMP_TO_EDGE)),this.tiles){var n=this.tiles[r];\\\"loaded\\\"!==n.state&&(n.state=\\\"loaded\\\",n.texture=this.texture)}}},r.prototype.loadTile=function(t,e){this.tileID&&this.tileID.equals(t.tileID.canonical)?(this.tiles[String(t.tileID.wrap)]=t,t.buckets={},e(null)):(t.state=\\\"errored\\\",e(null))},r.prototype.serialize=function(){return{type:\\\"image\\\",url:this.options.url,coordinates:this.coordinates}},r.prototype.hasTransition=function(){return!1},r}(t.Evented),et=function(e){function r(t,r,n,i){e.call(this,t,r,n,i),this.roundZoom=!0,this.type=\\\"video\\\",this.options=r}return e&&(r.__proto__=e),r.prototype=Object.create(e&&e.prototype),r.prototype.constructor=r,r.prototype.load=function(){var e=this,r=this.options;this.urls=[];for(var n=0,i=r.urls;n<i.length;n+=1){var a=i[n];e.urls.push(e.map._transformRequest(a,t.ResourceType.Source).url)}t.getVideo(this.urls,function(r,n){r?e.fire(new t.ErrorEvent(r)):n&&(e.video=n,e.video.loop=!0,e.video.addEventListener(\\\"playing\\\",function(){e.map._rerender()}),e.map&&e.video.play(),e._finishLoading())})},r.prototype.getVideo=function(){return this.video},r.prototype.onAdd=function(t){this.map||(this.map=t,this.load(),this.video&&(this.video.play(),this.setCoordinates(this.coordinates)))},r.prototype.prepare=function(){if(!(0===Object.keys(this.tiles).length||this.video.readyState<2)){var t=this.map.painter.context,e=t.gl;for(var r in this.boundsBuffer||(this.boundsBuffer=t.createVertexBuffer(this._boundsArray,K.members)),this.boundsVAO||(this.boundsVAO=new Q),this.texture?this.video.paused||(this.texture.bind(e.LINEAR,e.CLAMP_TO_EDGE),e.texSubImage2D(e.TEXTURE_2D,0,0,0,e.RGBA,e.UNSIGNED_BYTE,this.video)):(this.texture=new z(t,this.video,e.RGBA),this.texture.bind(e.LINEAR,e.CLAMP_TO_EDGE)),this.tiles){var n=this.tiles[r];\\\"loaded\\\"!==n.state&&(n.state=\\\"loaded\\\",n.texture=this.texture)}}},r.prototype.serialize=function(){return{type:\\\"video\\\",urls:this.urls,coordinates:this.coordinates}},r.prototype.hasTransition=function(){return this.video&&!this.video.paused},r}(tt),rt=function(e){function r(r,n,i,a){e.call(this,r,n,i,a),n.coordinates?Array.isArray(n.coordinates)&&4===n.coordinates.length&&!n.coordinates.some(function(t){return!Array.isArray(t)||2!==t.length||t.some(function(t){return\\\"number\\\"!=typeof t})})||this.fire(new t.ErrorEvent(new t.default$9(\\\"sources.\\\"+r,null,'\\\"coordinates\\\" property must be an array of 4 longitude/latitude array pairs'))):this.fire(new t.ErrorEvent(new t.default$9(\\\"sources.\\\"+r,null,'missing required property \\\"coordinates\\\"'))),n.animate&&\\\"boolean\\\"!=typeof n.animate&&this.fire(new t.ErrorEvent(new t.default$9(\\\"sources.\\\"+r,null,'optional \\\"animate\\\" property must be a boolean value'))),n.canvas?\\\"string\\\"==typeof n.canvas||n.canvas instanceof t.default.HTMLCanvasElement||this.fire(new t.ErrorEvent(new t.default$9(\\\"sources.\\\"+r,null,'\\\"canvas\\\" must be either a string representing the ID of the canvas element from which to read, or an HTMLCanvasElement instance'))):this.fire(new t.ErrorEvent(new t.default$9(\\\"sources.\\\"+r,null,'missing required property \\\"canvas\\\"'))),this.options=n,this.animate=void 0===n.animate||n.animate}return e&&(r.__proto__=e),r.prototype=Object.create(e&&e.prototype),r.prototype.constructor=r,r.prototype.load=function(){this.canvas||(this.canvas=this.options.canvas instanceof t.default.HTMLCanvasElement?this.options.canvas:t.default.document.getElementById(this.options.canvas)),this.width=this.canvas.width,this.height=this.canvas.height,this._hasInvalidDimensions()?this.fire(new t.ErrorEvent(new Error(\\\"Canvas dimensions cannot be less than or equal to zero.\\\"))):(this.play=function(){this._playing=!0,this.map._rerender()},this.pause=function(){this._playing=!1},this._finishLoading())},r.prototype.getCanvas=function(){return this.canvas},r.prototype.onAdd=function(t){this.map=t,this.load(),this.canvas&&this.animate&&this.play()},r.prototype.onRemove=function(){this.pause()},r.prototype.prepare=function(){var t=!1;if(this.canvas.width!==this.width&&(this.width=this.canvas.width,t=!0),this.canvas.height!==this.height&&(this.height=this.canvas.height,t=!0),!this._hasInvalidDimensions()&&0!==Object.keys(this.tiles).length){var e=this.map.painter.context,r=e.gl;for(var n in this.boundsBuffer||(this.boundsBuffer=e.createVertexBuffer(this._boundsArray,K.members)),this.boundsVAO||(this.boundsVAO=new Q),this.texture?t?this.texture.update(this.canvas):this._playing&&(this.texture.bind(r.LINEAR,r.CLAMP_TO_EDGE),r.texSubImage2D(r.TEXTURE_2D,0,0,0,r.RGBA,r.UNSIGNED_BYTE,this.canvas)):(this.texture=new z(e,this.canvas,r.RGBA),this.texture.bind(r.LINEAR,r.CLAMP_TO_EDGE)),this.tiles){var i=this.tiles[n];\\\"loaded\\\"!==i.state&&(i.state=\\\"loaded\\\",i.texture=this.texture)}}},r.prototype.serialize=function(){return{type:\\\"canvas\\\",coordinates:this.coordinates}},r.prototype.hasTransition=function(){return this._playing},r.prototype._hasInvalidDimensions=function(){for(var t=0,e=[this.canvas.width,this.canvas.height];t<e.length;t+=1){var r=e[t];if(isNaN(r)||r<=0)return!0}return!1},r}(tt),nt={vector:X,raster:Z,\\\"raster-dem\\\":$,geojson:J,video:et,image:tt,canvas:rt},it=function(e,r,n,i){var a=new nt[r.type](e,r,n,i);if(a.id!==e)throw new Error(\\\"Expected Source id to be \\\"+e+\\\" instead of \\\"+a.id);return t.bindAll([\\\"load\\\",\\\"abort\\\",\\\"unload\\\",\\\"serialize\\\",\\\"prepare\\\"],a),a};function at(t,e,r,n,i){var a=i.maxPitchScaleFactor(),o=t.tilesIn(r,a);o.sort(ot);for(var s=[],l=0,c=o;l<c.length;l+=1){var u=c[l];s.push({wrappedTileID:u.tileID.wrapped().key,queryResults:u.tile.queryRenderedFeatures(e,u.queryGeometry,u.scale,n,i,a,t.transform.calculatePosMatrix(u.tileID.toUnwrapped()))})}return function(t){for(var e={},r={},n=0,i=t;n<i.length;n+=1){var a=i[n],o=a.queryResults,s=a.wrappedTileID,l=r[s]=r[s]||{};for(var c in o)for(var u=o[c],f=l[c]=l[c]||{},h=e[c]=e[c]||[],p=0,d=u;p<d.length;p+=1){var g=d[p];f[g.featureIndex]||(f[g.featureIndex]=!0,h.push(g.feature))}}return e}(s)}function ot(t,e){var r=t.tileID,n=e.tileID;return r.overscaledZ-n.overscaledZ||r.canonical.y-n.canonical.y||r.wrap-n.wrap||r.canonical.x-n.canonical.x}var st=function(e,r){this.tileID=e,this.uid=t.uniqueId(),this.uses=0,this.tileSize=r,this.buckets={},this.expirationTime=null,this.queryPadding=0,this.expiredRequestCount=0,this.state=\\\"loading\\\"};st.prototype.registerFadeDuration=function(t){var e=t+this.timeAdded;e<a.now()||this.fadeEndTime&&e<this.fadeEndTime||(this.fadeEndTime=e)},st.prototype.wasRequested=function(){return\\\"errored\\\"===this.state||\\\"loaded\\\"===this.state||\\\"reloading\\\"===this.state},st.prototype.loadVectorData=function(e,r,n){if(this.hasData()&&this.unloadVectorData(),this.state=\\\"loaded\\\",e){if(e.featureIndex&&(this.latestFeatureIndex=e.featureIndex,e.rawTileData?(this.latestRawTileData=e.rawTileData,this.latestFeatureIndex.rawTileData=e.rawTileData):this.latestRawTileData&&(this.latestFeatureIndex.rawTileData=this.latestRawTileData)),this.collisionBoxArray=e.collisionBoxArray,this.buckets=function(t,e){var r={};if(!e)return r;for(var n=0,i=t;n<i.length;n+=1){var a=i[n],o=a.layerIds.map(function(t){return e.getLayer(t)}).filter(Boolean);if(0!==o.length){a.layers=o;for(var s=0,l=o;s<l.length;s+=1)r[l[s].id]=a}}return r}(e.buckets,r.style),n)for(var i in this.buckets){var a=this.buckets[i];a instanceof t.default$14&&(a.justReloaded=!0)}for(var o in this.queryPadding=0,this.buckets){var s=this.buckets[o];this.queryPadding=Math.max(this.queryPadding,r.style.getLayer(s.layerIds[0]).queryRadius(s))}e.iconAtlasImage&&(this.iconAtlasImage=e.iconAtlasImage),e.glyphAtlasImage&&(this.glyphAtlasImage=e.glyphAtlasImage)}else this.collisionBoxArray=new t.CollisionBoxArray},st.prototype.unloadVectorData=function(){for(var t in this.buckets)this.buckets[t].destroy();this.buckets={},this.iconAtlasTexture&&this.iconAtlasTexture.destroy(),this.glyphAtlasTexture&&this.glyphAtlasTexture.destroy(),this.latestFeatureIndex=null,this.state=\\\"unloaded\\\"},st.prototype.unloadDEMData=function(){this.dem=null,this.neighboringTiles=null,this.state=\\\"unloaded\\\"},st.prototype.getBucket=function(t){return this.buckets[t.id]},st.prototype.upload=function(t){for(var e in this.buckets){var r=this.buckets[e];r.uploaded||(r.upload(t),r.uploaded=!0)}var n=t.gl;this.iconAtlasImage&&(this.iconAtlasTexture=new z(t,this.iconAtlasImage,n.RGBA),this.iconAtlasImage=null),this.glyphAtlasImage&&(this.glyphAtlasTexture=new z(t,this.glyphAtlasImage,n.ALPHA),this.glyphAtlasImage=null)},st.prototype.queryRenderedFeatures=function(t,e,r,n,i,a,o){return this.latestFeatureIndex&&this.latestFeatureIndex.rawTileData?this.latestFeatureIndex.query({queryGeometry:e,scale:r,tileSize:this.tileSize,posMatrix:o,transform:i,params:n,queryPadding:this.queryPadding*a},t):{}},st.prototype.querySourceFeatures=function(e,r){if(this.latestFeatureIndex&&this.latestFeatureIndex.rawTileData){var n=this.latestFeatureIndex.loadVTLayers(),i=r?r.sourceLayer:\\\"\\\",a=n._geojsonTileLayer||n[i];if(a)for(var o=t.default$13(r&&r.filter),s={z:this.tileID.overscaledZ,x:this.tileID.canonical.x,y:this.tileID.canonical.y},l=0;l<a.length;l++){var c=a.feature(l);if(o(new t.default$16(this.tileID.overscaledZ),c)){var u=new t.default$12(c,s.z,s.x,s.y);u.tile=s,e.push(u)}}}},st.prototype.clearMask=function(){this.segments&&(this.segments.destroy(),delete this.segments),this.maskedBoundsBuffer&&(this.maskedBoundsBuffer.destroy(),delete this.maskedBoundsBuffer),this.maskedIndexBuffer&&(this.maskedIndexBuffer.destroy(),delete this.maskedIndexBuffer)},st.prototype.setMask=function(e,r){if(!t.default$10(this.mask,e)&&(this.mask=e,this.clearMask(),!t.default$10(e,{0:!0}))){var n=new t.RasterBoundsArray,i=new t.TriangleIndexArray;this.segments=new t.default$15,this.segments.prepareSegment(0,n,i);for(var a=Object.keys(e),o=0;o<a.length;o++){var s=e[a[o]],l=t.default$8>>s.z,c=new t.default$1(s.x*l,s.y*l),u=new t.default$1(c.x+l,c.y+l),f=this.segments.prepareSegment(4,n,i);n.emplaceBack(c.x,c.y,c.x,c.y),n.emplaceBack(u.x,c.y,u.x,c.y),n.emplaceBack(c.x,u.y,c.x,u.y),n.emplaceBack(u.x,u.y,u.x,u.y);var h=f.vertexLength;i.emplaceBack(h,h+1,h+2),i.emplaceBack(h+1,h+2,h+3),f.vertexLength+=4,f.primitiveLength+=2}this.maskedBoundsBuffer=r.createVertexBuffer(n,K.members),this.maskedIndexBuffer=r.createIndexBuffer(i)}},st.prototype.hasData=function(){return\\\"loaded\\\"===this.state||\\\"reloading\\\"===this.state||\\\"expired\\\"===this.state},st.prototype.setExpiryData=function(e){var r=this.expirationTime;if(e.cacheControl){var n=t.parseCacheControl(e.cacheControl);n[\\\"max-age\\\"]&&(this.expirationTime=Date.now()+1e3*n[\\\"max-age\\\"])}else e.expires&&(this.expirationTime=new Date(e.expires).getTime());if(this.expirationTime){var i=Date.now(),a=!1;if(this.expirationTime>i)a=!1;else if(r)if(this.expirationTime<r)a=!0;else{var o=this.expirationTime-r;o?this.expirationTime=i+Math.max(o,3e4):a=!0}else a=!0;a?(this.expiredRequestCount++,this.state=\\\"expired\\\"):this.expiredRequestCount=0}},st.prototype.getExpiryTimeout=function(){if(this.expirationTime)return this.expiredRequestCount?1e3*(1<<Math.min(this.expiredRequestCount-1,31)):Math.min(this.expirationTime-(new Date).getTime(),Math.pow(2,31)-1)};var lt=function(t,e){this.max=t,this.onRemove=e,this.reset()};lt.prototype.reset=function(){for(var t in this.data)for(var e=0,r=this.data[t];e<r.length;e+=1){var n=r[e];n.timeout&&clearTimeout(n.timeout),this.onRemove(n.value)}return this.data={},this.order=[],this},lt.prototype.add=function(t,e,r){var n=this,i=t.wrapped().key;void 0===this.data[i]&&(this.data[i]=[]);var a={value:e,timeout:void 0};if(void 0!==r&&(a.timeout=setTimeout(function(){n.remove(t,a)},r)),this.data[i].push(a),this.order.push(i),this.order.length>this.max){var o=this._getAndRemoveByKey(this.order[0]);o&&this.onRemove(o)}return this},lt.prototype.has=function(t){return t.wrapped().key in this.data},lt.prototype.getAndRemove=function(t){return this.has(t)?this._getAndRemoveByKey(t.wrapped().key):null},lt.prototype._getAndRemoveByKey=function(t){var e=this.data[t].shift();return e.timeout&&clearTimeout(e.timeout),0===this.data[t].length&&delete this.data[t],this.order.splice(this.order.indexOf(t),1),e.value},lt.prototype.get=function(t){return this.has(t)?this.data[t.wrapped().key][0].value:null},lt.prototype.remove=function(t,e){if(!this.has(t))return this;var r=t.wrapped().key,n=void 0===e?0:this.data[r].indexOf(e),i=this.data[r][n];return this.data[r].splice(n,1),i.timeout&&clearTimeout(i.timeout),0===this.data[r].length&&delete this.data[r],this.onRemove(i.value),this.order.splice(this.order.indexOf(r),1),this},lt.prototype.setMaxSize=function(t){for(this.max=t;this.order.length>this.max;){var e=this._getAndRemoveByKey(this.order[0]);e&&this.onRemove(e)}return this};var ct=function(t,e,r){this.context=t;var n=t.gl;this.buffer=n.createBuffer(),this.dynamicDraw=Boolean(r),this.unbindVAO(),t.bindElementBuffer.set(this.buffer),n.bufferData(n.ELEMENT_ARRAY_BUFFER,e.arrayBuffer,this.dynamicDraw?n.DYNAMIC_DRAW:n.STATIC_DRAW),this.dynamicDraw||delete e.arrayBuffer};ct.prototype.unbindVAO=function(){this.context.extVertexArrayObject&&this.context.bindVertexArrayOES.set(null)},ct.prototype.bind=function(){this.context.bindElementBuffer.set(this.buffer)},ct.prototype.updateData=function(t){var e=this.context.gl;this.unbindVAO(),this.bind(),e.bufferSubData(e.ELEMENT_ARRAY_BUFFER,0,t.arrayBuffer)},ct.prototype.destroy=function(){var t=this.context.gl;this.buffer&&(t.deleteBuffer(this.buffer),delete this.buffer)};var ut={Int8:\\\"BYTE\\\",Uint8:\\\"UNSIGNED_BYTE\\\",Int16:\\\"SHORT\\\",Uint16:\\\"UNSIGNED_SHORT\\\",Int32:\\\"INT\\\",Uint32:\\\"UNSIGNED_INT\\\",Float32:\\\"FLOAT\\\"},ft=function(t,e,r,n){this.length=e.length,this.attributes=r,this.itemSize=e.bytesPerElement,this.dynamicDraw=n,this.context=t;var i=t.gl;this.buffer=i.createBuffer(),t.bindVertexBuffer.set(this.buffer),i.bufferData(i.ARRAY_BUFFER,e.arrayBuffer,this.dynamicDraw?i.DYNAMIC_DRAW:i.STATIC_DRAW),this.dynamicDraw||delete e.arrayBuffer};ft.prototype.bind=function(){this.context.bindVertexBuffer.set(this.buffer)},ft.prototype.updateData=function(t){var e=this.context.gl;this.bind(),e.bufferSubData(e.ARRAY_BUFFER,0,t.arrayBuffer)},ft.prototype.enableAttributes=function(t,e){for(var r=0;r<this.attributes.length;r++){var n=this.attributes[r],i=e.attributes[n.name];void 0!==i&&t.enableVertexAttribArray(i)}},ft.prototype.setVertexAttribPointers=function(t,e,r){for(var n=0;n<this.attributes.length;n++){var i=this.attributes[n],a=e.attributes[i.name];void 0!==a&&t.vertexAttribPointer(a,i.components,t[ut[i.type]],!1,this.itemSize,i.offset+this.itemSize*(r||0))}},ft.prototype.destroy=function(){var t=this.context.gl;this.buffer&&(t.deleteBuffer(this.buffer),delete this.buffer)};var ht=function(e){this.context=e,this.current=t.default$6.transparent};ht.prototype.get=function(){return this.current},ht.prototype.set=function(t){var e=this.current;t.r===e.r&&t.g===e.g&&t.b===e.b&&t.a===e.a||(this.context.gl.clearColor(t.r,t.g,t.b,t.a),this.current=t)};var pt=function(t){this.context=t,this.current=1};pt.prototype.get=function(){return this.current},pt.prototype.set=function(t){this.current!==t&&(this.context.gl.clearDepth(t),this.current=t)};var dt=function(t){this.context=t,this.current=0};dt.prototype.get=function(){return this.current},dt.prototype.set=function(t){this.current!==t&&(this.context.gl.clearStencil(t),this.current=t)};var gt=function(t){this.context=t,this.current=[!0,!0,!0,!0]};gt.prototype.get=function(){return this.current},gt.prototype.set=function(t){var e=this.current;t[0]===e[0]&&t[1]===e[1]&&t[2]===e[2]&&t[3]===e[3]||(this.context.gl.colorMask(t[0],t[1],t[2],t[3]),this.current=t)};var vt=function(t){this.context=t,this.current=!0};vt.prototype.get=function(){return this.current},vt.prototype.set=function(t){this.current!==t&&(this.context.gl.depthMask(t),this.current=t)};var mt=function(t){this.context=t,this.current=255};mt.prototype.get=function(){return this.current},mt.prototype.set=function(t){this.current!==t&&(this.context.gl.stencilMask(t),this.current=t)};var yt=function(t){this.context=t,this.current={func:t.gl.ALWAYS,ref:0,mask:255}};yt.prototype.get=function(){return this.current},yt.prototype.set=function(t){var e=this.current;t.func===e.func&&t.ref===e.ref&&t.mask===e.mask||(this.context.gl.stencilFunc(t.func,t.ref,t.mask),this.current=t)};var xt=function(t){this.context=t;var e=this.context.gl;this.current=[e.KEEP,e.KEEP,e.KEEP]};xt.prototype.get=function(){return this.current},xt.prototype.set=function(t){var e=this.current;t[0]===e[0]&&t[1]===e[1]&&t[2]===e[2]||(this.context.gl.stencilOp(t[0],t[1],t[2]),this.current=t)};var bt=function(t){this.context=t,this.current=!1};bt.prototype.get=function(){return this.current},bt.prototype.set=function(t){if(this.current!==t){var e=this.context.gl;t?e.enable(e.STENCIL_TEST):e.disable(e.STENCIL_TEST),this.current=t}};var _t=function(t){this.context=t,this.current=[0,1]};_t.prototype.get=function(){return this.current},_t.prototype.set=function(t){var e=this.current;t[0]===e[0]&&t[1]===e[1]||(this.context.gl.depthRange(t[0],t[1]),this.current=t)};var wt=function(t){this.context=t,this.current=!1};wt.prototype.get=function(){return this.current},wt.prototype.set=function(t){if(this.current!==t){var e=this.context.gl;t?e.enable(e.DEPTH_TEST):e.disable(e.DEPTH_TEST),this.current=t}};var kt=function(t){this.context=t,this.current=t.gl.LESS};kt.prototype.get=function(){return this.current},kt.prototype.set=function(t){this.current!==t&&(this.context.gl.depthFunc(t),this.current=t)};var Tt=function(t){this.context=t,this.current=!1};Tt.prototype.get=function(){return this.current},Tt.prototype.set=function(t){if(this.current!==t){var e=this.context.gl;t?e.enable(e.BLEND):e.disable(e.BLEND),this.current=t}};var At=function(t){this.context=t;var e=this.context.gl;this.current=[e.ONE,e.ZERO]};At.prototype.get=function(){return this.current},At.prototype.set=function(t){var e=this.current;t[0]===e[0]&&t[1]===e[1]||(this.context.gl.blendFunc(t[0],t[1]),this.current=t)};var Mt=function(e){this.context=e,this.current=t.default$6.transparent};Mt.prototype.get=function(){return this.current},Mt.prototype.set=function(t){var e=this.current;t.r===e.r&&t.g===e.g&&t.b===e.b&&t.a===e.a||(this.context.gl.blendColor(t.r,t.g,t.b,t.a),this.current=t)};var St=function(t){this.context=t,this.current=null};St.prototype.get=function(){return this.current},St.prototype.set=function(t){this.current!==t&&(this.context.gl.useProgram(t),this.current=t)};var Et=function(t){this.context=t,this.current=1};Et.prototype.get=function(){return this.current},Et.prototype.set=function(e){var r=this.context.lineWidthRange,n=t.clamp(e,r[0],r[1]);this.current!==n&&(this.context.gl.lineWidth(n),this.current=e)};var Ct=function(t){this.context=t,this.current=t.gl.TEXTURE0};Ct.prototype.get=function(){return this.current},Ct.prototype.set=function(t){this.current!==t&&(this.context.gl.activeTexture(t),this.current=t)};var Lt=function(t){this.context=t;var e=this.context.gl;this.current=[0,0,e.drawingBufferWidth,e.drawingBufferHeight]};Lt.prototype.get=function(){return this.current},Lt.prototype.set=function(t){var e=this.current;t[0]===e[0]&&t[1]===e[1]&&t[2]===e[2]&&t[3]===e[3]||(this.context.gl.viewport(t[0],t[1],t[2],t[3]),this.current=t)};var zt=function(t){this.context=t,this.current=null};zt.prototype.get=function(){return this.current},zt.prototype.set=function(t){if(this.current!==t){var e=this.context.gl;e.bindFramebuffer(e.FRAMEBUFFER,t),this.current=t}};var Ot=function(t){this.context=t,this.current=null};Ot.prototype.get=function(){return this.current},Ot.prototype.set=function(t){if(this.current!==t){var e=this.context.gl;e.bindRenderbuffer(e.RENDERBUFFER,t),this.current=t}};var It=function(t){this.context=t,this.current=null};It.prototype.get=function(){return this.current},It.prototype.set=function(t){if(this.current!==t){var e=this.context.gl;e.bindTexture(e.TEXTURE_2D,t),this.current=t}};var Dt=function(t){this.context=t,this.current=null};Dt.prototype.get=function(){return this.current},Dt.prototype.set=function(t){if(this.current!==t){var e=this.context.gl;e.bindBuffer(e.ARRAY_BUFFER,t),this.current=t}};var Pt=function(t){this.context=t,this.current=null};Pt.prototype.get=function(){return this.current},Pt.prototype.set=function(t){var e=this.context.gl;e.bindBuffer(e.ELEMENT_ARRAY_BUFFER,t),this.current=t};var Rt=function(t){this.context=t,this.current=null};Rt.prototype.get=function(){return this.current},Rt.prototype.set=function(t){this.current!==t&&this.context.extVertexArrayObject&&(this.context.extVertexArrayObject.bindVertexArrayOES(t),this.current=t)};var Ft=function(t){this.context=t,this.current=4};Ft.prototype.get=function(){return this.current},Ft.prototype.set=function(t){if(this.current!==t){var e=this.context.gl;e.pixelStorei(e.UNPACK_ALIGNMENT,t),this.current=t}};var Bt=function(t){this.context=t,this.current=!1};Bt.prototype.get=function(){return this.current},Bt.prototype.set=function(t){if(this.current!==t){var e=this.context.gl;e.pixelStorei(e.UNPACK_PREMULTIPLY_ALPHA_WEBGL,t),this.current=t}};var Nt=function(t,e){this.context=t,this.current=null,this.parent=e};Nt.prototype.get=function(){return this.current};var jt=function(t){function e(e,r){t.call(this,e,r),this.dirty=!1}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.set=function(t){if(this.dirty||this.current!==t){var e=this.context.gl;this.context.bindFramebuffer.set(this.parent),e.framebufferTexture2D(e.FRAMEBUFFER,e.COLOR_ATTACHMENT0,e.TEXTURE_2D,t,0),this.current=t,this.dirty=!1}},e.prototype.setDirty=function(){this.dirty=!0},e}(Nt),Vt=function(t){function e(){t.apply(this,arguments)}return t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e,e.prototype.set=function(t){if(this.current!==t){var e=this.context.gl;this.context.bindFramebuffer.set(this.parent),e.framebufferRenderbuffer(e.FRAMEBUFFER,e.DEPTH_ATTACHMENT,e.RENDERBUFFER,t),this.current=t}},e}(Nt),Ut=function(t,e,r){this.context=t,this.width=e,this.height=r;var n=t.gl,i=this.framebuffer=n.createFramebuffer();this.colorAttachment=new jt(t,i),this.depthAttachment=new Vt(t,i)};Ut.prototype.destroy=function(){var t=this.context.gl,e=this.colorAttachment.get();e&&t.deleteTexture(e);var r=this.depthAttachment.get();r&&t.deleteRenderbuffer(r),t.deleteFramebuffer(this.framebuffer)};var Ht=function(t,e,r){this.func=t,this.mask=e,this.range=r};Ht.ReadOnly=!1,Ht.ReadWrite=!0,Ht.disabled=new Ht(519,Ht.ReadOnly,[0,1]);var qt=function(t,e,r,n,i,a){this.test=t,this.ref=e,this.mask=r,this.fail=n,this.depthFail=i,this.pass=a};qt.disabled=new qt({func:519,mask:0},0,0,7680,7680,7680);var Gt=function(t,e,r){this.blendFunction=t,this.blendColor=e,this.mask=r};Gt.disabled=new Gt(Gt.Replace=[1,0],t.default$6.transparent,[!1,!1,!1,!1]),Gt.unblended=new Gt(Gt.Replace,t.default$6.transparent,[!0,!0,!0,!0]),Gt.alphaBlended=new Gt([1,771],t.default$6.transparent,[!0,!0,!0,!0]);var Yt=function(t){this.gl=t,this.extVertexArrayObject=this.gl.getExtension(\\\"OES_vertex_array_object\\\"),this.lineWidthRange=t.getParameter(t.ALIASED_LINE_WIDTH_RANGE),this.clearColor=new ht(this),this.clearDepth=new pt(this),this.clearStencil=new dt(this),this.colorMask=new gt(this),this.depthMask=new vt(this),this.stencilMask=new mt(this),this.stencilFunc=new yt(this),this.stencilOp=new xt(this),this.stencilTest=new bt(this),this.depthRange=new _t(this),this.depthTest=new wt(this),this.depthFunc=new kt(this),this.blend=new Tt(this),this.blendFunc=new At(this),this.blendColor=new Mt(this),this.program=new St(this),this.lineWidth=new Et(this),this.activeTexture=new Ct(this),this.viewport=new Lt(this),this.bindFramebuffer=new zt(this),this.bindRenderbuffer=new Ot(this),this.bindTexture=new It(this),this.bindVertexBuffer=new Dt(this),this.bindElementBuffer=new Pt(this),this.bindVertexArrayOES=this.extVertexArrayObject&&new Rt(this),this.pixelStoreUnpack=new Ft(this),this.pixelStoreUnpackPremultiplyAlpha=new Bt(this),this.extTextureFilterAnisotropic=t.getExtension(\\\"EXT_texture_filter_anisotropic\\\")||t.getExtension(\\\"MOZ_EXT_texture_filter_anisotropic\\\")||t.getExtension(\\\"WEBKIT_EXT_texture_filter_anisotropic\\\"),this.extTextureFilterAnisotropic&&(this.extTextureFilterAnisotropicMax=t.getParameter(this.extTextureFilterAnisotropic.MAX_TEXTURE_MAX_ANISOTROPY_EXT)),this.extTextureHalfFloat=t.getExtension(\\\"OES_texture_half_float\\\"),this.extTextureHalfFloat&&t.getExtension(\\\"OES_texture_half_float_linear\\\")};Yt.prototype.createIndexBuffer=function(t,e){return new ct(this,t,e)},Yt.prototype.createVertexBuffer=function(t,e,r){return new ft(this,t,e,r)},Yt.prototype.createRenderbuffer=function(t,e,r){var n=this.gl,i=n.createRenderbuffer();return this.bindRenderbuffer.set(i),n.renderbufferStorage(n.RENDERBUFFER,t,e,r),this.bindRenderbuffer.set(null),i},Yt.prototype.createFramebuffer=function(t,e){return new Ut(this,t,e)},Yt.prototype.clear=function(t){var e=t.color,r=t.depth,n=this.gl,i=0;e&&(i|=n.COLOR_BUFFER_BIT,this.clearColor.set(e),this.colorMask.set([!0,!0,!0,!0])),void 0!==r&&(i|=n.DEPTH_BUFFER_BIT,this.clearDepth.set(r),this.depthMask.set(!0)),n.clear(i)},Yt.prototype.setDepthMode=function(t){t.func!==this.gl.ALWAYS||t.mask?(this.depthTest.set(!0),this.depthFunc.set(t.func),this.depthMask.set(t.mask),this.depthRange.set(t.range)):this.depthTest.set(!1)},Yt.prototype.setStencilMode=function(t){t.test.func!==this.gl.ALWAYS||t.mask?(this.stencilTest.set(!0),this.stencilMask.set(t.mask),this.stencilOp.set([t.fail,t.depthFail,t.pass]),this.stencilFunc.set({func:t.test.func,ref:t.ref,mask:t.test.mask})):this.stencilTest.set(!1)},Yt.prototype.setColorMode=function(e){t.default$10(e.blendFunction,Gt.Replace)?this.blend.set(!1):(this.blend.set(!0),this.blendFunc.set(e.blendFunction),this.blendColor.set(e.blendColor)),this.colorMask.set(e.mask)};var Wt=function(e){function r(t,r,n){var i=this;e.call(this),this.id=t,this.dispatcher=n,this.on(\\\"data\\\",function(t){\\\"source\\\"===t.dataType&&\\\"metadata\\\"===t.sourceDataType&&(i._sourceLoaded=!0),i._sourceLoaded&&!i._paused&&\\\"source\\\"===t.dataType&&\\\"content\\\"===t.sourceDataType&&(i.reload(),i.transform&&i.update(i.transform))}),this.on(\\\"error\\\",function(){i._sourceErrored=!0}),this._source=it(t,r,n,this),this._tiles={},this._cache=new lt(0,this._unloadTile.bind(this)),this._timers={},this._cacheTimers={},this._maxTileCacheSize=null,this._isIdRenderable=this._isIdRenderable.bind(this),this._coveredTiles={}}return e&&(r.__proto__=e),r.prototype=Object.create(e&&e.prototype),r.prototype.constructor=r,r.prototype.onAdd=function(t){this.map=t,this._maxTileCacheSize=t?t._maxTileCacheSize:null,this._source&&this._source.onAdd&&this._source.onAdd(t)},r.prototype.onRemove=function(t){this._source&&this._source.onRemove&&this._source.onRemove(t)},r.prototype.loaded=function(){if(this._sourceErrored)return!0;if(!this._sourceLoaded)return!1;for(var t in this._tiles){var e=this._tiles[t];if(\\\"loaded\\\"!==e.state&&\\\"errored\\\"!==e.state)return!1}return!0},r.prototype.getSource=function(){return this._source},r.prototype.pause=function(){this._paused=!0},r.prototype.resume=function(){if(this._paused){var t=this._shouldReloadOnResume;this._paused=!1,this._shouldReloadOnResume=!1,t&&this.reload(),this.transform&&this.update(this.transform)}},r.prototype._loadTile=function(t,e){return this._source.loadTile(t,e)},r.prototype._unloadTile=function(t){if(this._source.unloadTile)return this._source.unloadTile(t,function(){})},r.prototype._abortTile=function(t){if(this._source.abortTile)return this._source.abortTile(t,function(){})},r.prototype.serialize=function(){return this._source.serialize()},r.prototype.prepare=function(t){for(var e in this._source.prepare&&this._source.prepare(),this._tiles)this._tiles[e].upload(t)},r.prototype.getIds=function(){var e=this;return Object.keys(this._tiles).map(Number).sort(function(r,n){var i=e._tiles[r].tileID,a=e._tiles[n].tileID,o=new t.default$1(i.canonical.x,i.canonical.y).rotate(e.transform.angle),s=new t.default$1(a.canonical.x,a.canonical.y).rotate(e.transform.angle);return i.overscaledZ-a.overscaledZ||s.y-o.y||s.x-o.x})},r.prototype.getRenderableIds=function(){return this.getIds().filter(this._isIdRenderable)},r.prototype.hasRenderableParent=function(t){var e=this.findLoadedParent(t,0,{});return!!e&&this._isIdRenderable(e.tileID.key)},r.prototype._isIdRenderable=function(t){return this._tiles[t]&&this._tiles[t].hasData()&&!this._coveredTiles[t]},r.prototype.reload=function(){if(this._paused)this._shouldReloadOnResume=!0;else for(var t in this._cache.reset(),this._tiles)this._reloadTile(t,\\\"reloading\\\")},r.prototype._reloadTile=function(t,e){var r=this._tiles[t];r&&(\\\"loading\\\"!==r.state&&(r.state=e),this._loadTile(r,this._tileLoaded.bind(this,r,t,e)))},r.prototype._tileLoaded=function(e,r,n,i){if(i)return e.state=\\\"errored\\\",void(404!==i.status?this._source.fire(new t.ErrorEvent(i,{tile:e})):this.update(this.transform));e.timeAdded=a.now(),\\\"expired\\\"===n&&(e.refreshedUponExpiration=!0),this._setTileReloadTimer(r,e),\\\"raster-dem\\\"===this.getSource().type&&e.dem&&this._backfillDEM(e),this._source.fire(new t.Event(\\\"data\\\",{dataType:\\\"source\\\",tile:e,coord:e.tileID})),this.map&&(this.map.painter.tileExtentVAO.vao=null)},r.prototype._backfillDEM=function(t){for(var e=this.getRenderableIds(),r=0;r<e.length;r++){var n=e[r];if(t.neighboringTiles&&t.neighboringTiles[n]){var i=this.getTileByID(n);a(t,i),a(i,t)}}function a(t,e){t.needsHillshadePrepare=!0;var r=e.tileID.canonical.x-t.tileID.canonical.x,n=e.tileID.canonical.y-t.tileID.canonical.y,i=Math.pow(2,t.tileID.canonical.z),a=e.tileID.key;0===r&&0===n||Math.abs(n)>1||(Math.abs(r)>1&&(1===Math.abs(r+i)?r+=i:1===Math.abs(r-i)&&(r-=i)),e.dem&&t.dem&&(t.dem.backfillBorder(e.dem,r,n),t.neighboringTiles&&t.neighboringTiles[a]&&(t.neighboringTiles[a].backfilled=!0)))}},r.prototype.getTile=function(t){return this.getTileByID(t.key)},r.prototype.getTileByID=function(t){return this._tiles[t]},r.prototype.getZoom=function(t){return t.zoom+t.scaleZoom(t.tileSize/this._source.tileSize)},r.prototype._findLoadedChildren=function(t,e,r){var n=!1;for(var i in this._tiles){var a=this._tiles[i];if(!(r[i]||!a.hasData()||a.tileID.overscaledZ<=t.overscaledZ||a.tileID.overscaledZ>e)){var o=Math.pow(2,a.tileID.canonical.z-t.canonical.z);if(Math.floor(a.tileID.canonical.x/o)===t.canonical.x&&Math.floor(a.tileID.canonical.y/o)===t.canonical.y)for(r[i]=a.tileID,n=!0;a&&a.tileID.overscaledZ-1>t.overscaledZ;){var s=a.tileID.scaledTo(a.tileID.overscaledZ-1);if(!s)break;(a=this._tiles[s.key])&&a.hasData()&&(delete r[i],r[s.key]=s)}}}return n},r.prototype.findLoadedParent=function(t,e,r){for(var n=t.overscaledZ-1;n>=e;n--){var i=t.scaledTo(n);if(!i)return;var a=String(i.key),o=this._tiles[a];if(o&&o.hasData())return r[a]=i,o;if(this._cache.has(i))return r[a]=i,this._cache.get(i)}},r.prototype.updateCacheSize=function(t){var e=(Math.ceil(t.width/this._source.tileSize)+1)*(Math.ceil(t.height/this._source.tileSize)+1),r=Math.floor(5*e),n=\\\"number\\\"==typeof this._maxTileCacheSize?Math.min(this._maxTileCacheSize,r):r;this._cache.setMaxSize(n)},r.prototype.handleWrapJump=function(t){var e=(t-(void 0===this._prevLng?t:this._prevLng))/360,r=Math.round(e);if(this._prevLng=t,r){var n={};for(var i in this._tiles){var a=this._tiles[i];a.tileID=a.tileID.unwrapTo(a.tileID.wrap+r),n[a.tileID.key]=a}for(var o in this._tiles=n,this._timers)clearTimeout(this._timers[o]),delete this._timers[o];for(var s in this._tiles){var l=this._tiles[s];this._setTileReloadTimer(s,l)}}},r.prototype.update=function(e){var n=this;if(this.transform=e,this._sourceLoaded&&!this._paused){var i;this.updateCacheSize(e),this.handleWrapJump(this.transform.center.lng),this._coveredTiles={},this.used?this._source.tileID?i=e.getVisibleUnwrappedCoordinates(this._source.tileID).map(function(e){return new t.OverscaledTileID(e.canonical.z,e.wrap,e.canonical.z,e.canonical.x,e.canonical.y)}):(i=e.coveringTiles({tileSize:this._source.tileSize,minzoom:this._source.minzoom,maxzoom:this._source.maxzoom,roundZoom:this._source.roundZoom,reparseOverscaled:this._source.reparseOverscaled}),this._source.hasTile&&(i=i.filter(function(t){return n._source.hasTile(t)}))):i=[];var o,s=(this._source.roundZoom?Math.round:Math.floor)(this.getZoom(e)),l=Math.max(s-r.maxOverzooming,this._source.minzoom),c=Math.max(s+r.maxUnderzooming,this._source.minzoom),u=this._updateRetainedTiles(i,s),f={};if(Zt(this._source.type))for(var h=Object.keys(u),p=0;p<h.length;p++){var d=h[p],g=u[d],v=n._tiles[d];if(v&&(void 0===v.fadeEndTime||v.fadeEndTime>=a.now())){n._findLoadedChildren(g,c,u)&&(u[d]=g);var m=n.findLoadedParent(g,l,f);m&&n._addTile(m.tileID)}}for(o in f)u[o]||(n._coveredTiles[o]=!0);for(o in f)u[o]=f[o];for(var y=t.keysDifference(this._tiles,u),x=0;x<y.length;x++)n._removeTile(y[x])}},r.prototype._updateRetainedTiles=function(t,e){for(var n={},i={},a=Math.max(e-r.maxOverzooming,this._source.minzoom),o=Math.max(e+r.maxUnderzooming,this._source.minzoom),s=0;s<t.length;s++){var l=t[s],c=this._addTile(l),u=!1;if(c.hasData())n[l.key]=l;else{u=c.wasRequested(),n[l.key]=l;var f=!0;if(e+1>this._source.maxzoom){var h=l.children(this._source.maxzoom)[0],p=this.getTile(h);p&&p.hasData()?n[h.key]=h:f=!1}else{this._findLoadedChildren(l,o,n);for(var d=l.children(this._source.maxzoom),g=0;g<d.length;g++)if(!n[d[g].key]){f=!1;break}}if(!f)for(var v=l.overscaledZ-1;v>=a;--v){var m=l.scaledTo(v);if(i[m.key])break;if(i[m.key]=!0,!(c=this.getTile(m))&&u&&(c=this._addTile(m)),c&&(n[m.key]=m,u=c.wasRequested(),c.hasData()))break}}}return n},r.prototype._addTile=function(e){var r=this._tiles[e.key];if(r)return r;(r=this._cache.getAndRemove(e))&&(this._setTileReloadTimer(e.key,r),r.tileID=e);var n=Boolean(r);return n||(r=new st(e,this._source.tileSize*e.overscaleFactor()),this._loadTile(r,this._tileLoaded.bind(this,r,e.key,r.state))),r?(r.uses++,this._tiles[e.key]=r,n||this._source.fire(new t.Event(\\\"dataloading\\\",{tile:r,coord:r.tileID,dataType:\\\"source\\\"})),r):null},r.prototype._setTileReloadTimer=function(t,e){var r=this;t in this._timers&&(clearTimeout(this._timers[t]),delete this._timers[t]);var n=e.getExpiryTimeout();n&&(this._timers[t]=setTimeout(function(){r._reloadTile(t,\\\"expired\\\"),delete r._timers[t]},n))},r.prototype._removeTile=function(t){var e=this._tiles[t];e&&(e.uses--,delete this._tiles[t],this._timers[t]&&(clearTimeout(this._timers[t]),delete this._timers[t]),e.uses>0||(e.hasData()?this._cache.add(e.tileID,e,e.getExpiryTimeout()):(e.aborted=!0,this._abortTile(e),this._unloadTile(e))))},r.prototype.clearTiles=function(){for(var t in this._shouldReloadOnResume=!1,this._paused=!1,this._tiles)this._removeTile(t);this._cache.reset()},r.prototype.tilesIn=function(e,r){for(var n=[],i=this.getIds(),a=1/0,o=1/0,s=-1/0,l=-1/0,c=e[0].zoom,u=0;u<e.length;u++){var f=e[u];a=Math.min(a,f.column),o=Math.min(o,f.row),s=Math.max(s,f.column),l=Math.max(l,f.row)}for(var h=0;h<i.length;h++){var p=this._tiles[i[h]],d=p.tileID,g=Math.pow(2,this.transform.zoom-p.tileID.overscaledZ),v=r*p.queryPadding*t.default$8/p.tileSize/g,m=[Xt(d,new t.default$17(a,o,c)),Xt(d,new t.default$17(s,l,c))];if(m[0].x-v<t.default$8&&m[0].y-v<t.default$8&&m[1].x+v>=0&&m[1].y+v>=0){for(var y=[],x=0;x<e.length;x++)y.push(Xt(d,e[x]));n.push({tile:p,tileID:d,queryGeometry:[y],scale:g})}}return n},r.prototype.getVisibleCoordinates=function(){for(var t=this,e=this.getRenderableIds().map(function(e){return t._tiles[e].tileID}),r=0,n=e;r<n.length;r+=1){var i=n[r];i.posMatrix=t.transform.calculatePosMatrix(i.toUnwrapped())}return e},r.prototype.hasTransition=function(){if(this._source.hasTransition())return!0;if(Zt(this._source.type))for(var t in this._tiles){var e=this._tiles[t];if(void 0!==e.fadeEndTime&&e.fadeEndTime>=a.now())return!0}return!1},r}(t.Evented);function Xt(e,r){var n=r.zoomTo(e.canonical.z);return new t.default$1((n.column-(e.canonical.x+e.wrap*Math.pow(2,e.canonical.z)))*t.default$8,(n.row-e.canonical.y)*t.default$8)}function Zt(t){return\\\"raster\\\"===t||\\\"image\\\"===t||\\\"video\\\"===t}function $t(){return new t.default.Worker(En.workerUrl)}Wt.maxOverzooming=10,Wt.maxUnderzooming=3;var Jt,Kt=function(){this.active={}};function Qt(e,r){var n={};for(var i in e)\\\"ref\\\"!==i&&(n[i]=e[i]);return t.default$18.forEach(function(t){t in r&&(n[t]=r[t])}),n}function te(t){t=t.slice();for(var e=Object.create(null),r=0;r<t.length;r++)e[t[r].id]=t[r];for(var n=0;n<t.length;n++)\\\"ref\\\"in t[n]&&(t[n]=Qt(t[n],e[t[n].ref]));return t}Kt.prototype.acquire=function(t){if(!this.workers){var e=En.workerCount;for(this.workers=[];this.workers.length<e;)this.workers.push(new $t)}return this.active[t]=!0,this.workers.slice()},Kt.prototype.release=function(t){delete this.active[t],0===Object.keys(this.active).length&&(this.workers.forEach(function(t){t.terminate()}),this.workers=null)};var ee={setStyle:\\\"setStyle\\\",addLayer:\\\"addLayer\\\",removeLayer:\\\"removeLayer\\\",setPaintProperty:\\\"setPaintProperty\\\",setLayoutProperty:\\\"setLayoutProperty\\\",setFilter:\\\"setFilter\\\",addSource:\\\"addSource\\\",removeSource:\\\"removeSource\\\",setGeoJSONSourceData:\\\"setGeoJSONSourceData\\\",setLayerZoomRange:\\\"setLayerZoomRange\\\",setLayerProperty:\\\"setLayerProperty\\\",setCenter:\\\"setCenter\\\",setZoom:\\\"setZoom\\\",setBearing:\\\"setBearing\\\",setPitch:\\\"setPitch\\\",setSprite:\\\"setSprite\\\",setGlyphs:\\\"setGlyphs\\\",setTransition:\\\"setTransition\\\",setLight:\\\"setLight\\\"};function re(t,e,r){r.push({command:ee.addSource,args:[t,e[t]]})}function ne(t,e,r){e.push({command:ee.removeSource,args:[t]}),r[t]=!0}function ie(t,e,r,n){ne(t,r,n),re(t,e,r)}function ae(e,r,n){var i;for(i in e[n])if(e[n].hasOwnProperty(i)&&\\\"data\\\"!==i&&!t.default$10(e[n][i],r[n][i]))return!1;for(i in r[n])if(r[n].hasOwnProperty(i)&&\\\"data\\\"!==i&&!t.default$10(e[n][i],r[n][i]))return!1;return!0}function oe(e,r,n,i,a,o){var s;for(s in r=r||{},e=e||{})e.hasOwnProperty(s)&&(t.default$10(e[s],r[s])||n.push({command:o,args:[i,s,r[s],a]}));for(s in r)r.hasOwnProperty(s)&&!e.hasOwnProperty(s)&&(t.default$10(e[s],r[s])||n.push({command:o,args:[i,s,r[s],a]}))}function se(t){return t.id}function le(t,e){return t[e.id]=e,t}var ce=function(t,e,r){var n=this.boxCells=[],i=this.circleCells=[];this.xCellCount=Math.ceil(t/r),this.yCellCount=Math.ceil(e/r);for(var a=0;a<this.xCellCount*this.yCellCount;a++)n.push([]),i.push([]);this.circleKeys=[],this.boxKeys=[],this.bboxes=[],this.circles=[],this.width=t,this.height=e,this.xScale=this.xCellCount/t,this.yScale=this.yCellCount/e,this.boxUid=0,this.circleUid=0};ce.prototype.keysLength=function(){return this.boxKeys.length+this.circleKeys.length},ce.prototype.insert=function(t,e,r,n,i){this._forEachCell(e,r,n,i,this._insertBoxCell,this.boxUid++),this.boxKeys.push(t),this.bboxes.push(e),this.bboxes.push(r),this.bboxes.push(n),this.bboxes.push(i)},ce.prototype.insertCircle=function(t,e,r,n){this._forEachCell(e-n,r-n,e+n,r+n,this._insertCircleCell,this.circleUid++),this.circleKeys.push(t),this.circles.push(e),this.circles.push(r),this.circles.push(n)},ce.prototype._insertBoxCell=function(t,e,r,n,i,a){this.boxCells[i].push(a)},ce.prototype._insertCircleCell=function(t,e,r,n,i,a){this.circleCells[i].push(a)},ce.prototype._query=function(t,e,r,n,i){if(r<0||t>this.width||n<0||e>this.height)return!i&&[];var a=[];if(t<=0&&e<=0&&this.width<=r&&this.height<=n){if(i)return!0;for(var o=0;o<this.boxKeys.length;o++)a.push({key:this.boxKeys[o],x1:this.bboxes[4*o],y1:this.bboxes[4*o+1],x2:this.bboxes[4*o+2],y2:this.bboxes[4*o+3]});for(var s=0;s<this.circleKeys.length;s++){var l=this.circles[3*s],c=this.circles[3*s+1],u=this.circles[3*s+2];a.push({key:this.circleKeys[s],x1:l-u,y1:c-u,x2:l+u,y2:c+u})}}else{var f={hitTest:i,seenUids:{box:{},circle:{}}};this._forEachCell(t,e,r,n,this._queryCell,a,f)}return i?a.length>0:a},ce.prototype._queryCircle=function(t,e,r,n){var i=t-r,a=t+r,o=e-r,s=e+r;if(a<0||i>this.width||s<0||o>this.height)return!n&&[];var l=[],c={hitTest:n,circle:{x:t,y:e,radius:r},seenUids:{box:{},circle:{}}};return this._forEachCell(i,o,a,s,this._queryCellCircle,l,c),n?l.length>0:l},ce.prototype.query=function(t,e,r,n){return this._query(t,e,r,n,!1)},ce.prototype.hitTest=function(t,e,r,n){return this._query(t,e,r,n,!0)},ce.prototype.hitTestCircle=function(t,e,r){return this._queryCircle(t,e,r,!0)},ce.prototype._queryCell=function(t,e,r,n,i,a,o){var s=o.seenUids,l=this.boxCells[i];if(null!==l)for(var c=this.bboxes,u=0,f=l;u<f.length;u+=1){var h=f[u];if(!s.box[h]){s.box[h]=!0;var p=4*h;if(t<=c[p+2]&&e<=c[p+3]&&r>=c[p+0]&&n>=c[p+1]){if(o.hitTest)return a.push(!0),!0;a.push({key:this.boxKeys[h],x1:c[p],y1:c[p+1],x2:c[p+2],y2:c[p+3]})}}}var d=this.circleCells[i];if(null!==d)for(var g=this.circles,v=0,m=d;v<m.length;v+=1){var y=m[v];if(!s.circle[y]){s.circle[y]=!0;var x=3*y;if(this._circleAndRectCollide(g[x],g[x+1],g[x+2],t,e,r,n)){if(o.hitTest)return a.push(!0),!0;var b=g[x],_=g[x+1],w=g[x+2];a.push({key:this.circleKeys[y],x1:b-w,y1:_-w,x2:b+w,y2:_+w})}}}},ce.prototype._queryCellCircle=function(t,e,r,n,i,a,o){var s=o.circle,l=o.seenUids,c=this.boxCells[i];if(null!==c)for(var u=this.bboxes,f=0,h=c;f<h.length;f+=1){var p=h[f];if(!l.box[p]){l.box[p]=!0;var d=4*p;if(this._circleAndRectCollide(s.x,s.y,s.radius,u[d+0],u[d+1],u[d+2],u[d+3]))return a.push(!0),!0}}var g=this.circleCells[i];if(null!==g)for(var v=this.circles,m=0,y=g;m<y.length;m+=1){var x=y[m];if(!l.circle[x]){l.circle[x]=!0;var b=3*x;if(this._circlesCollide(v[b],v[b+1],v[b+2],s.x,s.y,s.radius))return a.push(!0),!0}}},ce.prototype._forEachCell=function(t,e,r,n,i,a,o){for(var s=this._convertToXCellCoord(t),l=this._convertToYCellCoord(e),c=this._convertToXCellCoord(r),u=this._convertToYCellCoord(n),f=s;f<=c;f++)for(var h=l;h<=u;h++){var p=this.xCellCount*h+f;if(i.call(this,t,e,r,n,p,a,o))return}},ce.prototype._convertToXCellCoord=function(t){return Math.max(0,Math.min(this.xCellCount-1,Math.floor(t*this.xScale)))},ce.prototype._convertToYCellCoord=function(t){return Math.max(0,Math.min(this.yCellCount-1,Math.floor(t*this.yScale)))},ce.prototype._circlesCollide=function(t,e,r,n,i,a){var o=n-t,s=i-e,l=r+a;return l*l>o*o+s*s},ce.prototype._circleAndRectCollide=function(t,e,r,n,i,a,o){var s=(a-n)/2,l=Math.abs(t-(n+s));if(l>s+r)return!1;var c=(o-i)/2,u=Math.abs(e-(i+c));if(u>c+r)return!1;if(l<=s||u<=c)return!0;var f=l-s,h=u-c;return f*f+h*h<=r*r};var ue=t.default$19.layout;function fe(e,r,n,i,a){var o=t.mat4.identity(new Float32Array(16));return r?(t.mat4.identity(o),t.mat4.scale(o,o,[1/a,1/a,1]),n||t.mat4.rotateZ(o,o,i.angle)):(t.mat4.scale(o,o,[i.width/2,-i.height/2,1]),t.mat4.translate(o,o,[1,-1,0]),t.mat4.multiply(o,o,e)),o}function he(e,r,n,i,a){var o=t.mat4.identity(new Float32Array(16));return r?(t.mat4.multiply(o,o,e),t.mat4.scale(o,o,[a,a,1]),n||t.mat4.rotateZ(o,o,-i.angle)):(t.mat4.scale(o,o,[1,-1,1]),t.mat4.translate(o,o,[-1,-1,0]),t.mat4.scale(o,o,[2/i.width,2/i.height,1])),o}function pe(e,r){var n=[e.x,e.y,0,1];ke(n,n,r);var i=n[3];return{point:new t.default$1(n[0]/i,n[1]/i),signedDistanceFromCamera:i}}function de(t,e){var r=t[0]/t[3],n=t[1]/t[3];return r>=-e[0]&&r<=e[0]&&n>=-e[1]&&n<=e[1]}function ge(e,r,n,i,a,o,s,l){var c=i?e.textSizeData:e.iconSizeData,u=t.evaluateSizeForZoom(c,n.transform.zoom,ue.properties[i?\\\"text-size\\\":\\\"icon-size\\\"]),f=[256/n.width*2+1,256/n.height*2+1],h=i?e.text.dynamicLayoutVertexArray:e.icon.dynamicLayoutVertexArray;h.clear();for(var p=e.lineVertexArray,d=i?e.text.placedSymbolArray:e.icon.placedSymbolArray,g=n.transform.width/n.transform.height,v=!1,m=0;m<d.length;m++){var y=d.get(m);if(y.hidden||y.writingMode===t.WritingMode.vertical&&!v)we(y.numGlyphs,h);else{v=!1;var x=[y.anchorX,y.anchorY,0,1];if(t.vec4.transformMat4(x,x,r),de(x,f)){var b=.5+x[3]/n.transform.cameraToCenterDistance*.5,_=t.evaluateSizeForFeature(c,u,y),w=s?_*b:_/b,k=new t.default$1(y.anchorX,y.anchorY),T=pe(k,a).point,A={},M=ye(y,w,!1,l,r,a,o,e.glyphOffsetArray,p,h,T,k,A,g);v=M.useVertical,(M.notEnoughRoom||v||M.needsFlipping&&ye(y,w,!0,l,r,a,o,e.glyphOffsetArray,p,h,T,k,A,g).notEnoughRoom)&&we(y.numGlyphs,h)}else we(y.numGlyphs,h)}}i?e.text.dynamicLayoutVertexBuffer.updateData(h):e.icon.dynamicLayoutVertexBuffer.updateData(h)}function ve(t,e,r,n,i,a,o,s,l,c,u,f){var h=s.glyphStartIndex+s.numGlyphs,p=s.lineStartIndex,d=s.lineStartIndex+s.lineLength,g=e.getoffsetX(s.glyphStartIndex),v=e.getoffsetX(h-1),m=be(t*g,r,n,i,a,o,s.segment,p,d,l,c,u,f);if(!m)return null;var y=be(t*v,r,n,i,a,o,s.segment,p,d,l,c,u,f);return y?{first:m,last:y}:null}function me(e,r,n,i){return e===t.WritingMode.horizontal&&Math.abs(n.y-r.y)>Math.abs(n.x-r.x)*i?{useVertical:!0}:(e===t.WritingMode.vertical?r.y<n.y:r.x>n.x)?{needsFlipping:!0}:null}function ye(e,r,n,i,a,o,s,l,c,u,f,h,p,d){var g,v=r/24,m=e.lineOffsetX*r,y=e.lineOffsetY*r;if(e.numGlyphs>1){var x=e.glyphStartIndex+e.numGlyphs,b=e.lineStartIndex,_=e.lineStartIndex+e.lineLength,w=ve(v,l,m,y,n,f,h,e,c,o,p,!1);if(!w)return{notEnoughRoom:!0};var k=pe(w.first.point,s).point,T=pe(w.last.point,s).point;if(i&&!n){var A=me(e.writingMode,k,T,d);if(A)return A}g=[w.first];for(var M=e.glyphStartIndex+1;M<x-1;M++)g.push(be(v*l.getoffsetX(M),m,y,n,f,h,e.segment,b,_,c,o,p,!1));g.push(w.last)}else{if(i&&!n){var S=pe(h,a).point,E=e.lineStartIndex+e.segment+1,C=new t.default$1(c.getx(E),c.gety(E)),L=pe(C,a),z=L.signedDistanceFromCamera>0?L.point:xe(h,C,S,1,a),O=me(e.writingMode,S,z,d);if(O)return O}var I=be(v*l.getoffsetX(e.glyphStartIndex),m,y,n,f,h,e.segment,e.lineStartIndex,e.lineStartIndex+e.lineLength,c,o,p,!1);if(!I)return{notEnoughRoom:!0};g=[I]}for(var D=0,P=g;D<P.length;D+=1){var R=P[D];t.addDynamicAttributes(u,R.point,R.angle)}return{}}function xe(t,e,r,n,i){var a=pe(t.add(t.sub(e)._unit()),i).point,o=r.sub(a);return r.add(o._mult(n/o.mag()))}function be(e,r,n,i,a,o,s,l,c,u,f,h,p){var d=i?e-r:e+r,g=d>0?1:-1,v=0;i&&(g*=-1,v=Math.PI),g<0&&(v+=Math.PI);for(var m=g>0?l+s:l+s+1,y=m,x=a,b=a,_=0,w=0,k=Math.abs(d);_+w<=k;){if((m+=g)<l||m>=c)return null;if(b=x,void 0===(x=h[m])){var T=new t.default$1(u.getx(m),u.gety(m)),A=pe(T,f);if(A.signedDistanceFromCamera>0)x=h[m]=A.point;else{var M=m-g;x=xe(0===_?o:new t.default$1(u.getx(M),u.gety(M)),T,b,k-_+1,f)}}_+=w,w=b.dist(x)}var S=(k-_)/w,E=x.sub(b),C=E.mult(S)._add(b);return C._add(E._unit()._perp()._mult(n*g)),{point:C,angle:v+Math.atan2(x.y-b.y,x.x-b.x),tileDistance:p?{prevTileDistance:m-g===y?0:u.gettileUnitDistanceFromAnchor(m-g),lastSegmentViewportDistance:k-_}:null}}var _e=new Float32Array([-1/0,-1/0,0,-1/0,-1/0,0,-1/0,-1/0,0,-1/0,-1/0,0]);function we(t,e){for(var r=0;r<t;r++){var n=e.length;e.resize(n+4),e.float32.set(_e,3*n)}}function ke(t,e,r){var n=e[0],i=e[1];return t[0]=r[0]*n+r[4]*i+r[12],t[1]=r[1]*n+r[5]*i+r[13],t[3]=r[3]*n+r[7]*i+r[15],t}t.default$20.mat4;var Te=function(t,e,r){void 0===e&&(e=new ce(t.width+200,t.height+200,25)),void 0===r&&(r=new ce(t.width+200,t.height+200,25)),this.transform=t,this.grid=e,this.ignoredGrid=r,this.pitchfactor=Math.cos(t._pitch)*t.cameraToCenterDistance,this.screenRightBoundary=t.width+100,this.screenBottomBoundary=t.height+100};function Ae(t,e,r){t[e+4]=r?1:0}function Me(e,r,n){return r*(t.default$8/(e.tileSize*Math.pow(2,n-e.tileID.overscaledZ)))}Te.prototype.placeCollisionBox=function(t,e,r,n){var i=this.projectAndGetPerspectiveRatio(n,t.anchorPointX,t.anchorPointY),a=r*i.perspectiveRatio,o=t.x1*a+i.point.x,s=t.y1*a+i.point.y,l=t.x2*a+i.point.x,c=t.y2*a+i.point.y;return!e&&this.grid.hitTest(o,s,l,c)?{box:[],offscreen:!1}:{box:[o,s,l,c],offscreen:this.isOffscreen(o,s,l,c)}},Te.prototype.approximateTileDistance=function(t,e,r,n,i){var a=i?1:n/this.pitchfactor,o=t.lastSegmentViewportDistance*r;return t.prevTileDistance+o+(a-1)*o*Math.abs(Math.sin(e))},Te.prototype.placeCollisionCircles=function(e,r,n,i,a,o,s,l,c,u,f,h,p){var d=[],g=this.projectAnchor(u,o.anchorX,o.anchorY),v=c/24,m=o.lineOffsetX*c,y=o.lineOffsetY*c,x=new t.default$1(o.anchorX,o.anchorY),b=ve(v,l,m,y,!1,pe(x,f).point,x,o,s,f,{},!0),_=!1,w=!0,k=g.perspectiveRatio*i,T=1/(i*n),A=0,M=0;b&&(A=this.approximateTileDistance(b.first.tileDistance,b.first.angle,T,g.cameraDistance,p),M=this.approximateTileDistance(b.last.tileDistance,b.last.angle,T,g.cameraDistance,p));for(var S=0;S<e.length;S+=5){var E=e[S],C=e[S+1],L=e[S+2],z=e[S+3];if(!b||z<-A||z>M)Ae(e,S,!1);else{var O=this.projectPoint(u,E,C),I=L*k;if(d.length>0){var D=O.x-d[d.length-4],P=O.y-d[d.length-3];if(I*I*2>D*D+P*P&&S+8<e.length){var R=e[S+8];if(R>-A&&R<M){Ae(e,S,!1);continue}}}var F=S/5;if(d.push(O.x,O.y,I,F),Ae(e,S,!0),w=w&&this.isOffscreen(O.x-I,O.y-I,O.x+I,O.y+I),!r&&this.grid.hitTestCircle(O.x,O.y,I)){if(!h)return{circles:[],offscreen:!1};_=!0}}}return{circles:_?[]:d,offscreen:w}},Te.prototype.queryRenderedSymbols=function(e){if(0===e.length||0===this.grid.keysLength()&&0===this.ignoredGrid.keysLength())return{};for(var r=[],n=1/0,i=1/0,a=-1/0,o=-1/0,s=0,l=e;s<l.length;s+=1){var c=l[s],u=new t.default$1(c.x+100,c.y+100);n=Math.min(n,u.x),i=Math.min(i,u.y),a=Math.max(a,u.x),o=Math.max(o,u.y),r.push(u)}for(var f={},h={},p=0,d=this.grid.query(n,i,a,o).concat(this.ignoredGrid.query(n,i,a,o));p<d.length;p+=1){var g=d[p],v=g.key;if(void 0===f[v.bucketInstanceId]&&(f[v.bucketInstanceId]={}),!f[v.bucketInstanceId][v.featureIndex]){var m=[new t.default$1(g.x1,g.y1),new t.default$1(g.x2,g.y1),new t.default$1(g.x2,g.y2),new t.default$1(g.x1,g.y2)];t.polygonIntersectsPolygon(r,m)&&(f[v.bucketInstanceId][v.featureIndex]=!0,void 0===h[v.bucketInstanceId]&&(h[v.bucketInstanceId]=[]),h[v.bucketInstanceId].push(v.featureIndex))}}return h},Te.prototype.insertCollisionBox=function(t,e,r,n){var i={bucketInstanceId:r,featureIndex:n};(e?this.ignoredGrid:this.grid).insert(i,t[0],t[1],t[2],t[3])},Te.prototype.insertCollisionCircles=function(t,e,r,n){for(var i=e?this.ignoredGrid:this.grid,a={bucketInstanceId:r,featureIndex:n},o=0;o<t.length;o+=4)i.insertCircle(a,t[o],t[o+1],t[o+2])},Te.prototype.projectAnchor=function(t,e,r){var n=[e,r,0,1];return ke(n,n,t),{perspectiveRatio:.5+this.transform.cameraToCenterDistance/n[3]*.5,cameraDistance:n[3]}},Te.prototype.projectPoint=function(e,r,n){var i=[r,n,0,1];return ke(i,i,e),new t.default$1((i[0]/i[3]+1)/2*this.transform.width+100,(-i[1]/i[3]+1)/2*this.transform.height+100)},Te.prototype.projectAndGetPerspectiveRatio=function(e,r,n){var i=[r,n,0,1];return ke(i,i,e),{point:new t.default$1((i[0]/i[3]+1)/2*this.transform.width+100,(-i[1]/i[3]+1)/2*this.transform.height+100),perspectiveRatio:.5+this.transform.cameraToCenterDistance/i[3]*.5}},Te.prototype.isOffscreen=function(t,e,r,n){return r<100||t>=this.screenRightBoundary||n<100||e>this.screenBottomBoundary};var Se=t.default$19.layout,Ee=function(t,e,r,n){this.opacity=t?Math.max(0,Math.min(1,t.opacity+(t.placed?e:-e))):n&&r?1:0,this.placed=r};Ee.prototype.isHidden=function(){return 0===this.opacity&&!this.placed};var Ce=function(t,e,r,n,i){this.text=new Ee(t?t.text:null,e,r,i),this.icon=new Ee(t?t.icon:null,e,n,i)};Ce.prototype.isHidden=function(){return this.text.isHidden()&&this.icon.isHidden()};var Le=function(t,e,r){this.text=t,this.icon=e,this.skipFade=r},ze=function(t,e){this.transform=t.clone(),this.collisionIndex=new Te(this.transform),this.placements={},this.opacities={},this.stale=!1,this.fadeDuration=e,this.retainedQueryData={}};function Oe(t,e,r){t.emplaceBack(e?1:0,r?1:0),t.emplaceBack(e?1:0,r?1:0),t.emplaceBack(e?1:0,r?1:0),t.emplaceBack(e?1:0,r?1:0)}ze.prototype.placeLayerTile=function(e,r,n,i){var a=r.getBucket(e),o=r.latestFeatureIndex;if(a&&o&&e.id===a.layerIds[0]){var s=r.collisionBoxArray,l=a.layers[0].layout,c=Math.pow(2,this.transform.zoom-r.tileID.overscaledZ),u=r.tileSize/t.default$8,f=this.transform.calculatePosMatrix(r.tileID.toUnwrapped()),h=fe(f,\\\"map\\\"===l.get(\\\"text-pitch-alignment\\\"),\\\"map\\\"===l.get(\\\"text-rotation-alignment\\\"),this.transform,Me(r,1,this.transform.zoom)),p=fe(f,\\\"map\\\"===l.get(\\\"icon-pitch-alignment\\\"),\\\"map\\\"===l.get(\\\"icon-rotation-alignment\\\"),this.transform,Me(r,1,this.transform.zoom));this.retainedQueryData[a.bucketInstanceId]=new function(t,e,r,n,i){this.bucketInstanceId=t,this.featureIndex=e,this.sourceLayerIndex=r,this.bucketIndex=n,this.tileID=i}(a.bucketInstanceId,o,a.sourceLayerIndex,a.index,r.tileID),this.placeLayerBucket(a,f,h,p,c,u,n,i,s)}},ze.prototype.placeLayerBucket=function(e,r,n,i,a,o,s,l,c){for(var u=e.layers[0].layout,f=t.evaluateSizeForZoom(e.textSizeData,this.transform.zoom,Se.properties[\\\"text-size\\\"]),h=!e.hasTextData()||u.get(\\\"text-optional\\\"),p=!e.hasIconData()||u.get(\\\"icon-optional\\\"),d=0,g=e.symbolInstances;d<g.length;d+=1){var v=g[d];if(!l[v.crossTileID]){var m=void 0!==v.feature.text,y=void 0!==v.feature.icon,x=!0,b=null,_=null,w=null,k=0,T=0;v.collisionArrays||(v.collisionArrays=e.deserializeCollisionBoxes(c,v.textBoxStartIndex,v.textBoxEndIndex,v.iconBoxStartIndex,v.iconBoxEndIndex)),v.collisionArrays.textFeatureIndex&&(k=v.collisionArrays.textFeatureIndex),v.collisionArrays.textBox&&(m=(b=this.collisionIndex.placeCollisionBox(v.collisionArrays.textBox,u.get(\\\"text-allow-overlap\\\"),o,r)).box.length>0,x=x&&b.offscreen);var A=v.collisionArrays.textCircles;if(A){var M=e.text.placedSymbolArray.get(v.placedTextSymbolIndices[0]),S=t.evaluateSizeForFeature(e.textSizeData,f,M);_=this.collisionIndex.placeCollisionCircles(A,u.get(\\\"text-allow-overlap\\\"),a,o,v.key,M,e.lineVertexArray,e.glyphOffsetArray,S,r,n,s,\\\"map\\\"===u.get(\\\"text-pitch-alignment\\\")),m=u.get(\\\"text-allow-overlap\\\")||_.circles.length>0,x=x&&_.offscreen}v.collisionArrays.iconFeatureIndex&&(T=v.collisionArrays.iconFeatureIndex),v.collisionArrays.iconBox&&(y=(w=this.collisionIndex.placeCollisionBox(v.collisionArrays.iconBox,u.get(\\\"icon-allow-overlap\\\"),o,r)).box.length>0,x=x&&w.offscreen),h||p?p?h||(y=y&&m):m=y&&m:y=m=y&&m,m&&b&&this.collisionIndex.insertCollisionBox(b.box,u.get(\\\"text-ignore-placement\\\"),e.bucketInstanceId,k),y&&w&&this.collisionIndex.insertCollisionBox(w.box,u.get(\\\"icon-ignore-placement\\\"),e.bucketInstanceId,T),m&&_&&this.collisionIndex.insertCollisionCircles(_.circles,u.get(\\\"text-ignore-placement\\\"),e.bucketInstanceId,k),this.placements[v.crossTileID]=new Le(m,y,x||e.justReloaded),l[v.crossTileID]=!0}}e.justReloaded=!1},ze.prototype.commit=function(t,e){this.commitTime=e;var r=!1,n=t&&0!==this.fadeDuration?(this.commitTime-t.commitTime)/this.fadeDuration:1,i=t?t.opacities:{};for(var a in this.placements){var o=this.placements[a],s=i[a];s?(this.opacities[a]=new Ce(s,n,o.text,o.icon),r=r||o.text!==s.text.placed||o.icon!==s.icon.placed):(this.opacities[a]=new Ce(null,n,o.text,o.icon,o.skipFade),r=r||o.text||o.icon)}for(var l in i){var c=i[l];if(!this.opacities[l]){var u=new Ce(c,n,!1,!1);u.isHidden()||(this.opacities[l]=u,r=r||c.text.placed||c.icon.placed)}}r?this.lastPlacementChangeTime=e:\\\"number\\\"!=typeof this.lastPlacementChangeTime&&(this.lastPlacementChangeTime=t?t.lastPlacementChangeTime:e)},ze.prototype.updateLayerOpacities=function(t,e){for(var r={},n=0,i=e;n<i.length;n+=1){var a=i[n],o=a.getBucket(t);o&&a.latestFeatureIndex&&t.id===o.layerIds[0]&&this.updateBucketOpacities(o,r,a.collisionBoxArray)}},ze.prototype.updateBucketOpacities=function(t,e,r){t.hasTextData()&&t.text.opacityVertexArray.clear(),t.hasIconData()&&t.icon.opacityVertexArray.clear(),t.hasCollisionBoxData()&&t.collisionBox.collisionVertexArray.clear(),t.hasCollisionCircleData()&&t.collisionCircle.collisionVertexArray.clear();for(var n=t.layers[0].layout,i=new Ce(null,0,!1,!1,!0),a=new Ce(null,0,n.get(\\\"text-allow-overlap\\\"),n.get(\\\"icon-allow-overlap\\\"),!0),o=0;o<t.symbolInstances.length;o++){var s=t.symbolInstances[o],l=e[s.crossTileID],c=this.opacities[s.crossTileID];l?c=i:c||(c=a,this.opacities[s.crossTileID]=c),e[s.crossTileID]=!0;var u=s.numGlyphVertices>0||s.numVerticalGlyphVertices>0,f=s.numIconVertices>0;if(u){for(var h=je(c.text),p=(s.numGlyphVertices+s.numVerticalGlyphVertices)/4,d=0;d<p;d++)t.text.opacityVertexArray.emplaceBack(h);for(var g=0,v=s.placedTextSymbolIndices;g<v.length;g+=1){var m=v[g];t.text.placedSymbolArray.get(m).hidden=c.text.isHidden()}}if(f){for(var y=je(c.icon),x=0;x<s.numIconVertices/4;x++)t.icon.opacityVertexArray.emplaceBack(y);t.icon.placedSymbolArray.get(o).hidden=c.icon.isHidden()}s.collisionArrays||(s.collisionArrays=t.deserializeCollisionBoxes(r,s.textBoxStartIndex,s.textBoxEndIndex,s.iconBoxStartIndex,s.iconBoxEndIndex));var b=s.collisionArrays;if(b){b.textBox&&t.hasCollisionBoxData()&&Oe(t.collisionBox.collisionVertexArray,c.text.placed,!1),b.iconBox&&t.hasCollisionBoxData()&&Oe(t.collisionBox.collisionVertexArray,c.icon.placed,!1);var _=b.textCircles;if(_&&t.hasCollisionCircleData())for(var w=0;w<_.length;w+=5){var k=l||0===_[w+4];Oe(t.collisionCircle.collisionVertexArray,c.text.placed,k)}}}t.sortFeatures(this.transform.angle),this.retainedQueryData[t.bucketInstanceId]&&(this.retainedQueryData[t.bucketInstanceId].featureSortOrder=t.featureSortOrder),t.hasTextData()&&t.text.opacityVertexBuffer&&t.text.opacityVertexBuffer.updateData(t.text.opacityVertexArray),t.hasIconData()&&t.icon.opacityVertexBuffer&&t.icon.opacityVertexBuffer.updateData(t.icon.opacityVertexArray),t.hasCollisionBoxData()&&t.collisionBox.collisionVertexBuffer&&t.collisionBox.collisionVertexBuffer.updateData(t.collisionBox.collisionVertexArray),t.hasCollisionCircleData()&&t.collisionCircle.collisionVertexBuffer&&t.collisionCircle.collisionVertexBuffer.updateData(t.collisionCircle.collisionVertexArray)},ze.prototype.symbolFadeChange=function(t){return 0===this.fadeDuration?1:(t-this.commitTime)/this.fadeDuration},ze.prototype.hasTransitions=function(t){return this.stale||t-this.lastPlacementChangeTime<this.fadeDuration},ze.prototype.stillRecent=function(t){return\\\"undefined\\\"!==this.commitTime&&this.commitTime+this.fadeDuration>t},ze.prototype.setStale=function(){this.stale=!0};var Ie=Math.pow(2,25),De=Math.pow(2,24),Pe=Math.pow(2,17),Re=Math.pow(2,16),Fe=Math.pow(2,9),Be=Math.pow(2,8),Ne=Math.pow(2,1);function je(t){if(0===t.opacity&&!t.placed)return 0;if(1===t.opacity&&t.placed)return 4294967295;var e=t.placed?1:0,r=Math.floor(127*t.opacity);return r*Ie+e*De+r*Pe+e*Re+r*Fe+e*Be+r*Ne+e}var Ve=function(){this._currentTileIndex=0,this._seenCrossTileIDs={}};Ve.prototype.continuePlacement=function(t,e,r,n,i){for(;this._currentTileIndex<t.length;){var a=t[this._currentTileIndex];if(e.placeLayerTile(n,a,r,this._seenCrossTileIDs),this._currentTileIndex++,i())return!0}};var Ue=function(t,e,r,n,i){this.placement=new ze(t,i),this._currentPlacementIndex=e.length-1,this._forceFullPlacement=r,this._showCollisionBoxes=n,this._done=!1};Ue.prototype.isDone=function(){return this._done},Ue.prototype.continuePlacement=function(t,e,r){for(var n=this,i=a.now(),o=function(){var t=a.now()-i;return!n._forceFullPlacement&&t>2};this._currentPlacementIndex>=0;){var s=e[t[n._currentPlacementIndex]],l=n.placement.collisionIndex.transform.zoom;if(\\\"symbol\\\"===s.type&&(!s.minzoom||s.minzoom<=l)&&(!s.maxzoom||s.maxzoom>l)){if(n._inProgressLayer||(n._inProgressLayer=new Ve),n._inProgressLayer.continuePlacement(r[s.source],n.placement,n._showCollisionBoxes,s,o))return;delete n._inProgressLayer}n._currentPlacementIndex--}this._done=!0},Ue.prototype.commit=function(t,e){return this.placement.commit(t,e),this.placement};var He=512/t.default$8/2,qe=function(t,e,r){this.tileID=t,this.indexedSymbolInstances={},this.bucketInstanceId=r;for(var n=0,i=e;n<i.length;n+=1){var a=i[n],o=a.key;this.indexedSymbolInstances[o]||(this.indexedSymbolInstances[o]=[]),this.indexedSymbolInstances[o].push({crossTileID:a.crossTileID,coord:this.getScaledCoordinates(a,t)})}};qe.prototype.getScaledCoordinates=function(e,r){var n=r.canonical.z-this.tileID.canonical.z,i=He/Math.pow(2,n),a=e.anchor;return{x:Math.floor((r.canonical.x*t.default$8+a.x)*i),y:Math.floor((r.canonical.y*t.default$8+a.y)*i)}},qe.prototype.findMatches=function(t,e,r){for(var n=this.tileID.canonical.z<e.canonical.z?1:Math.pow(2,this.tileID.canonical.z-e.canonical.z),i=0,a=t;i<a.length;i+=1){var o=a[i];if(!o.crossTileID){var s=this.indexedSymbolInstances[o.key];if(s)for(var l=this.getScaledCoordinates(o,e),c=0,u=s;c<u.length;c+=1){var f=u[c];if(Math.abs(f.coord.x-l.x)<=n&&Math.abs(f.coord.y-l.y)<=n&&!r[f.crossTileID]){r[f.crossTileID]=!0,o.crossTileID=f.crossTileID;break}}}}};var Ge=function(){this.maxCrossTileID=0};Ge.prototype.generate=function(){return++this.maxCrossTileID};var Ye=function(){this.indexes={},this.usedCrossTileIDs={},this.lng=0};Ye.prototype.handleWrapJump=function(t){var e=Math.round((t-this.lng)/360);if(0!==e)for(var r in this.indexes){var n=this.indexes[r],i={};for(var a in n){var o=n[a];o.tileID=o.tileID.unwrapTo(o.tileID.wrap+e),i[o.tileID.key]=o}this.indexes[r]=i}this.lng=t},Ye.prototype.addBucket=function(t,e,r){if(this.indexes[t.overscaledZ]&&this.indexes[t.overscaledZ][t.key]){if(this.indexes[t.overscaledZ][t.key].bucketInstanceId===e.bucketInstanceId)return!1;this.removeBucketCrossTileIDs(t.overscaledZ,this.indexes[t.overscaledZ][t.key])}for(var n=0,i=e.symbolInstances;n<i.length;n+=1)i[n].crossTileID=0;this.usedCrossTileIDs[t.overscaledZ]||(this.usedCrossTileIDs[t.overscaledZ]={});var a=this.usedCrossTileIDs[t.overscaledZ];for(var o in this.indexes){var s=this.indexes[o];if(Number(o)>t.overscaledZ)for(var l in s){var c=s[l];c.tileID.isChildOf(t)&&c.findMatches(e.symbolInstances,t,a)}else{var u=s[t.scaledTo(Number(o)).key];u&&u.findMatches(e.symbolInstances,t,a)}}for(var f=0,h=e.symbolInstances;f<h.length;f+=1){var p=h[f];p.crossTileID||(p.crossTileID=r.generate(),a[p.crossTileID]=!0)}return void 0===this.indexes[t.overscaledZ]&&(this.indexes[t.overscaledZ]={}),this.indexes[t.overscaledZ][t.key]=new qe(t,e.symbolInstances,e.bucketInstanceId),!0},Ye.prototype.removeBucketCrossTileIDs=function(t,e){for(var r in e.indexedSymbolInstances)for(var n=0,i=e.indexedSymbolInstances[r];n<i.length;n+=1){var a=i[n];delete this.usedCrossTileIDs[t][a.crossTileID]}},Ye.prototype.removeStaleBuckets=function(t){var e=!1;for(var r in this.indexes){var n=this.indexes[r];for(var i in n)t[n[i].bucketInstanceId]||(this.removeBucketCrossTileIDs(r,n[i]),delete n[i],e=!0)}return e};var We=function(){this.layerIndexes={},this.crossTileIDs=new Ge,this.maxBucketInstanceId=0,this.bucketsInCurrentPlacement={}};We.prototype.addLayer=function(t,e,r){var n=this.layerIndexes[t.id];void 0===n&&(n=this.layerIndexes[t.id]=new Ye);var i=!1,a={};n.handleWrapJump(r);for(var o=0,s=e;o<s.length;o+=1){var l=s[o],c=l.getBucket(t);c&&t.id===c.layerIds[0]&&(c.bucketInstanceId||(c.bucketInstanceId=++this.maxBucketInstanceId),n.addBucket(l.tileID,c,this.crossTileIDs)&&(i=!0),a[c.bucketInstanceId]=!0)}return n.removeStaleBuckets(a)&&(i=!0),i},We.prototype.pruneUnusedLayers=function(t){var e={};for(var r in t.forEach(function(t){e[t]=!0}),this.layerIndexes)e[r]||delete this.layerIndexes[r]};var Xe=function(e,r){return t.emitValidationErrors(e,r&&r.filter(function(t){return\\\"source.canvas\\\"!==t.identifier}))},Ze=t.pick(ee,[\\\"addLayer\\\",\\\"removeLayer\\\",\\\"setPaintProperty\\\",\\\"setLayoutProperty\\\",\\\"setFilter\\\",\\\"addSource\\\",\\\"removeSource\\\",\\\"setLayerZoomRange\\\",\\\"setLight\\\",\\\"setTransition\\\",\\\"setGeoJSONSourceData\\\"]),$e=t.pick(ee,[\\\"setCenter\\\",\\\"setZoom\\\",\\\"setBearing\\\",\\\"setPitch\\\"]),Je=function(e){function r(n,i){var a=this;void 0===i&&(i={}),e.call(this),this.map=n,this.dispatcher=new H((Jt||(Jt=new Kt),Jt),this),this.imageManager=new O,this.glyphManager=new B(n._transformRequest,i.localIdeographFontFamily),this.lineAtlas=new U(256,512),this.crossTileSymbolIndex=new We,this._layers={},this._order=[],this.sourceCaches={},this.zoomHistory=new t.default$23,this._loaded=!1,this._resetUpdates();var o=this;this._rtlTextPluginCallback=r.registerForPluginAvailability(function(t){for(var e in o.dispatcher.broadcast(\\\"loadRTLTextPlugin\\\",t.pluginURL,t.completionCallback),o.sourceCaches)o.sourceCaches[e].reload()}),this.on(\\\"data\\\",function(t){if(\\\"source\\\"===t.dataType&&\\\"metadata\\\"===t.sourceDataType){var e=a.sourceCaches[t.sourceId];if(e){var r=e.getSource();if(r&&r.vectorLayerIds)for(var n in a._layers){var i=a._layers[n];i.source===r.id&&a._validateLayer(i)}}}})}return e&&(r.__proto__=e),r.prototype=Object.create(e&&e.prototype),r.prototype.constructor=r,r.prototype.loadURL=function(e,r){var n=this;void 0===r&&(r={}),this.fire(new t.Event(\\\"dataloading\\\",{dataType:\\\"style\\\"}));var i=\\\"boolean\\\"==typeof r.validate?r.validate:!x(e);e=function(t,e){if(!x(t))return t;var r=A(t);return r.path=\\\"/styles/v1\\\"+r.path,y(r,e)}(e,r.accessToken);var a=this.map._transformRequest(e,t.ResourceType.Style);t.getJSON(a,function(e,r){e?n.fire(new t.ErrorEvent(e)):r&&n._load(r,i)})},r.prototype.loadJSON=function(e,r){var n=this;void 0===r&&(r={}),this.fire(new t.Event(\\\"dataloading\\\",{dataType:\\\"style\\\"})),a.frame(function(){n._load(e,!1!==r.validate)})},r.prototype._load=function(e,r){var n=this;if(!r||!Xe(this,t.validateStyle(e))){for(var i in this._loaded=!0,this.stylesheet=e,e.sources)n.addSource(i,e.sources[i],{validate:!1});e.sprite?function(e,r,n){var i,o,s,l=a.devicePixelRatio>1?\\\"@2x\\\":\\\"\\\";function c(){if(s)n(s);else if(i&&o){var e=a.getImageData(o),r={};for(var l in i){var c=i[l],u=c.width,f=c.height,h=c.x,p=c.y,d=c.sdf,g=c.pixelRatio,v=new t.RGBAImage({width:u,height:f});t.RGBAImage.copy(e,v,{x:h,y:p},{x:0,y:0},{width:u,height:f}),r[l]={data:v,pixelRatio:g,sdf:d}}n(null,r)}}t.getJSON(r(_(e,l,\\\".json\\\"),t.ResourceType.SpriteJSON),function(t,e){s||(s=t,i=e,c())}),t.getImage(r(_(e,l,\\\".png\\\"),t.ResourceType.SpriteImage),function(t,e){s||(s=t,o=e,c())})}(e.sprite,this.map._transformRequest,function(e,r){if(e)n.fire(new t.ErrorEvent(e));else if(r)for(var i in r)n.imageManager.addImage(i,r[i]);n.imageManager.setLoaded(!0),n.fire(new t.Event(\\\"data\\\",{dataType:\\\"style\\\"}))}):this.imageManager.setLoaded(!0),this.glyphManager.setURL(e.glyphs);var o=te(this.stylesheet.layers);this._order=o.map(function(t){return t.id}),this._layers={};for(var s=0,l=o;s<l.length;s+=1){var c=l[s];(c=t.default$22(c)).setEventedParent(n,{layer:{id:c.id}}),n._layers[c.id]=c}this.dispatcher.broadcast(\\\"setLayers\\\",this._serializeLayers(this._order)),this.light=new V(this.stylesheet.light),this.fire(new t.Event(\\\"data\\\",{dataType:\\\"style\\\"})),this.fire(new t.Event(\\\"style.load\\\"))}},r.prototype._validateLayer=function(e){var r=this.sourceCaches[e.source];if(r){var n=e.sourceLayer;if(n){var i=r.getSource();(\\\"geojson\\\"===i.type||i.vectorLayerIds&&-1===i.vectorLayerIds.indexOf(n))&&this.fire(new t.ErrorEvent(new Error('Source layer \\\"'+n+'\\\" does not exist on source \\\"'+i.id+'\\\" as specified by style layer \\\"'+e.id+'\\\"')))}}},r.prototype.loaded=function(){if(!this._loaded)return!1;if(Object.keys(this._updatedSources).length)return!1;for(var t in this.sourceCaches)if(!this.sourceCaches[t].loaded())return!1;return!!this.imageManager.isLoaded()},r.prototype._serializeLayers=function(t){var e=this;return t.map(function(t){return e._layers[t].serialize()})},r.prototype.hasTransitions=function(){if(this.light&&this.light.hasTransition())return!0;for(var t in this.sourceCaches)if(this.sourceCaches[t].hasTransition())return!0;for(var e in this._layers)if(this._layers[e].hasTransition())return!0;return!1},r.prototype._checkLoaded=function(){if(!this._loaded)throw new Error(\\\"Style is not done loading\\\")},r.prototype.update=function(e){if(this._loaded){if(this._changed){var r=Object.keys(this._updatedLayers),n=Object.keys(this._removedLayers);for(var i in(r.length||n.length)&&this._updateWorkerLayers(r,n),this._updatedSources){var a=this._updatedSources[i];\\\"reload\\\"===a?this._reloadSource(i):\\\"clear\\\"===a&&this._clearSource(i)}for(var o in this._updatedPaintProps)this._layers[o].updateTransitions(e);this.light.updateTransitions(e),this._resetUpdates(),this.fire(new t.Event(\\\"data\\\",{dataType:\\\"style\\\"}))}for(var s in this.sourceCaches)this.sourceCaches[s].used=!1;for(var l=0,c=this._order;l<c.length;l+=1){var u=c[l],f=this._layers[u];f.recalculate(e),!f.isHidden(e.zoom)&&f.source&&(this.sourceCaches[f.source].used=!0)}this.light.recalculate(e),this.z=e.zoom}},r.prototype._updateWorkerLayers=function(t,e){this.dispatcher.broadcast(\\\"updateLayers\\\",{layers:this._serializeLayers(t),removedIds:e})},r.prototype._resetUpdates=function(){this._changed=!1,this._updatedLayers={},this._removedLayers={},this._updatedSources={},this._updatedPaintProps={}},r.prototype.setState=function(e){var r=this;if(this._checkLoaded(),Xe(this,t.validateStyle(e)))return!1;(e=t.clone(e)).layers=te(e.layers);var n=function(e,r){if(!e)return[{command:ee.setStyle,args:[r]}];var n=[];try{if(!t.default$10(e.version,r.version))return[{command:ee.setStyle,args:[r]}];t.default$10(e.center,r.center)||n.push({command:ee.setCenter,args:[r.center]}),t.default$10(e.zoom,r.zoom)||n.push({command:ee.setZoom,args:[r.zoom]}),t.default$10(e.bearing,r.bearing)||n.push({command:ee.setBearing,args:[r.bearing]}),t.default$10(e.pitch,r.pitch)||n.push({command:ee.setPitch,args:[r.pitch]}),t.default$10(e.sprite,r.sprite)||n.push({command:ee.setSprite,args:[r.sprite]}),t.default$10(e.glyphs,r.glyphs)||n.push({command:ee.setGlyphs,args:[r.glyphs]}),t.default$10(e.transition,r.transition)||n.push({command:ee.setTransition,args:[r.transition]}),t.default$10(e.light,r.light)||n.push({command:ee.setLight,args:[r.light]});var i={},a=[];!function(e,r,n,i){var a;for(a in r=r||{},e=e||{})e.hasOwnProperty(a)&&(r.hasOwnProperty(a)||ne(a,n,i));for(a in r)r.hasOwnProperty(a)&&(e.hasOwnProperty(a)?t.default$10(e[a],r[a])||(\\\"geojson\\\"===e[a].type&&\\\"geojson\\\"===r[a].type&&ae(e,r,a)?n.push({command:ee.setGeoJSONSourceData,args:[a,r[a].data]}):ie(a,r,n,i)):re(a,r,n))}(e.sources,r.sources,a,i);var o=[];e.layers&&e.layers.forEach(function(t){i[t.source]?n.push({command:ee.removeLayer,args:[t.id]}):o.push(t)}),n=n.concat(a),function(e,r,n){r=r||[];var i,a,o,s,l,c,u,f=(e=e||[]).map(se),h=r.map(se),p=e.reduce(le,{}),d=r.reduce(le,{}),g=f.slice(),v=Object.create(null);for(i=0,a=0;i<f.length;i++)o=f[i],d.hasOwnProperty(o)?a++:(n.push({command:ee.removeLayer,args:[o]}),g.splice(g.indexOf(o,a),1));for(i=0,a=0;i<h.length;i++)o=h[h.length-1-i],g[g.length-1-i]!==o&&(p.hasOwnProperty(o)?(n.push({command:ee.removeLayer,args:[o]}),g.splice(g.lastIndexOf(o,g.length-a),1)):a++,c=g[g.length-i],n.push({command:ee.addLayer,args:[d[o],c]}),g.splice(g.length-i,0,o),v[o]=!0);for(i=0;i<h.length;i++)if(s=p[o=h[i]],l=d[o],!v[o]&&!t.default$10(s,l))if(t.default$10(s.source,l.source)&&t.default$10(s[\\\"source-layer\\\"],l[\\\"source-layer\\\"])&&t.default$10(s.type,l.type)){for(u in oe(s.layout,l.layout,n,o,null,ee.setLayoutProperty),oe(s.paint,l.paint,n,o,null,ee.setPaintProperty),t.default$10(s.filter,l.filter)||n.push({command:ee.setFilter,args:[o,l.filter]}),t.default$10(s.minzoom,l.minzoom)&&t.default$10(s.maxzoom,l.maxzoom)||n.push({command:ee.setLayerZoomRange,args:[o,l.minzoom,l.maxzoom]}),s)s.hasOwnProperty(u)&&\\\"layout\\\"!==u&&\\\"paint\\\"!==u&&\\\"filter\\\"!==u&&\\\"metadata\\\"!==u&&\\\"minzoom\\\"!==u&&\\\"maxzoom\\\"!==u&&(0===u.indexOf(\\\"paint.\\\")?oe(s[u],l[u],n,o,u.slice(6),ee.setPaintProperty):t.default$10(s[u],l[u])||n.push({command:ee.setLayerProperty,args:[o,u,l[u]]}));for(u in l)l.hasOwnProperty(u)&&!s.hasOwnProperty(u)&&\\\"layout\\\"!==u&&\\\"paint\\\"!==u&&\\\"filter\\\"!==u&&\\\"metadata\\\"!==u&&\\\"minzoom\\\"!==u&&\\\"maxzoom\\\"!==u&&(0===u.indexOf(\\\"paint.\\\")?oe(s[u],l[u],n,o,u.slice(6),ee.setPaintProperty):t.default$10(s[u],l[u])||n.push({command:ee.setLayerProperty,args:[o,u,l[u]]}))}else n.push({command:ee.removeLayer,args:[o]}),c=g[g.lastIndexOf(o)+1],n.push({command:ee.addLayer,args:[l,c]})}(o,r.layers,n)}catch(t){console.warn(\\\"Unable to compute style diff:\\\",t),n=[{command:ee.setStyle,args:[r]}]}return n}(this.serialize(),e).filter(function(t){return!(t.command in $e)});if(0===n.length)return!1;var i=n.filter(function(t){return!(t.command in Ze)});if(i.length>0)throw new Error(\\\"Unimplemented: \\\"+i.map(function(t){return t.command}).join(\\\", \\\")+\\\".\\\");return n.forEach(function(t){\\\"setTransition\\\"!==t.command&&r[t.command].apply(r,t.args)}),this.stylesheet=e,!0},r.prototype.addImage=function(e,r){if(this.getImage(e))return this.fire(new t.ErrorEvent(new Error(\\\"An image with this name already exists.\\\")));this.imageManager.addImage(e,r),this.fire(new t.Event(\\\"data\\\",{dataType:\\\"style\\\"}))},r.prototype.getImage=function(t){return this.imageManager.getImage(t)},r.prototype.removeImage=function(e){if(!this.getImage(e))return this.fire(new t.ErrorEvent(new Error(\\\"No image with this name exists.\\\")));this.imageManager.removeImage(e),this.fire(new t.Event(\\\"data\\\",{dataType:\\\"style\\\"}))},r.prototype.addSource=function(e,r,n){var i=this;if(this._checkLoaded(),void 0!==this.sourceCaches[e])throw new Error(\\\"There is already a source with this ID\\\");if(!r.type)throw new Error(\\\"The type property must be defined, but the only the following properties were given: \\\"+Object.keys(r).join(\\\", \\\")+\\\".\\\");if(!([\\\"vector\\\",\\\"raster\\\",\\\"geojson\\\",\\\"video\\\",\\\"image\\\"].indexOf(r.type)>=0&&this._validate(t.validateStyle.source,\\\"sources.\\\"+e,r,null,n))){this.map&&this.map._collectResourceTiming&&(r.collectResourceTiming=!0);var a=this.sourceCaches[e]=new Wt(e,r,this.dispatcher);a.style=this,a.setEventedParent(this,function(){return{isSourceLoaded:i.loaded(),source:a.serialize(),sourceId:e}}),a.onAdd(this.map),this._changed=!0}},r.prototype.removeSource=function(e){if(this._checkLoaded(),void 0===this.sourceCaches[e])throw new Error(\\\"There is no source with this ID\\\");for(var r in this._layers)if(this._layers[r].source===e)return this.fire(new t.ErrorEvent(new Error('Source \\\"'+e+'\\\" cannot be removed while layer \\\"'+r+'\\\" is using it.')));var n=this.sourceCaches[e];delete this.sourceCaches[e],delete this._updatedSources[e],n.fire(new t.Event(\\\"data\\\",{sourceDataType:\\\"metadata\\\",dataType:\\\"source\\\",sourceId:e})),n.setEventedParent(null),n.clearTiles(),n.onRemove&&n.onRemove(this.map),this._changed=!0},r.prototype.setGeoJSONSourceData=function(t,e){this._checkLoaded(),this.sourceCaches[t].getSource().setData(e),this._changed=!0},r.prototype.getSource=function(t){return this.sourceCaches[t]&&this.sourceCaches[t].getSource()},r.prototype.addLayer=function(e,r,n){this._checkLoaded();var i=e.id;if(this.getLayer(i))this.fire(new t.ErrorEvent(new Error('Layer with id \\\"'+i+'\\\" already exists on this map')));else if(\\\"object\\\"==typeof e.source&&(this.addSource(i,e.source),e=t.clone(e),e=t.extend(e,{source:i})),!this._validate(t.validateStyle.layer,\\\"layers.\\\"+i,e,{arrayIndex:-1},n)){var a=t.default$22(e);this._validateLayer(a),a.setEventedParent(this,{layer:{id:i}});var o=r?this._order.indexOf(r):this._order.length;if(r&&-1===o)this.fire(new t.ErrorEvent(new Error('Layer with id \\\"'+r+'\\\" does not exist on this map.')));else{if(this._order.splice(o,0,i),this._layerOrderChanged=!0,this._layers[i]=a,this._removedLayers[i]&&a.source){var s=this._removedLayers[i];delete this._removedLayers[i],s.type!==a.type?this._updatedSources[a.source]=\\\"clear\\\":(this._updatedSources[a.source]=\\\"reload\\\",this.sourceCaches[a.source].pause())}this._updateLayer(a)}}},r.prototype.moveLayer=function(e,r){if(this._checkLoaded(),this._changed=!0,this._layers[e]){if(e!==r){var n=this._order.indexOf(e);this._order.splice(n,1);var i=r?this._order.indexOf(r):this._order.length;r&&-1===i?this.fire(new t.ErrorEvent(new Error('Layer with id \\\"'+r+'\\\" does not exist on this map.'))):(this._order.splice(i,0,e),this._layerOrderChanged=!0)}}else this.fire(new t.ErrorEvent(new Error(\\\"The layer '\\\"+e+\\\"' does not exist in the map's style and cannot be moved.\\\")))},r.prototype.removeLayer=function(e){this._checkLoaded();var r=this._layers[e];if(r){r.setEventedParent(null);var n=this._order.indexOf(e);this._order.splice(n,1),this._layerOrderChanged=!0,this._changed=!0,this._removedLayers[e]=r,delete this._layers[e],delete this._updatedLayers[e],delete this._updatedPaintProps[e]}else this.fire(new t.ErrorEvent(new Error(\\\"The layer '\\\"+e+\\\"' does not exist in the map's style and cannot be removed.\\\")))},r.prototype.getLayer=function(t){return this._layers[t]},r.prototype.setLayerZoomRange=function(e,r,n){this._checkLoaded();var i=this.getLayer(e);i?i.minzoom===r&&i.maxzoom===n||(null!=r&&(i.minzoom=r),null!=n&&(i.maxzoom=n),this._updateLayer(i)):this.fire(new t.ErrorEvent(new Error(\\\"The layer '\\\"+e+\\\"' does not exist in the map's style and cannot have zoom extent.\\\")))},r.prototype.setFilter=function(e,r){this._checkLoaded();var n=this.getLayer(e);if(n){if(!t.default$10(n.filter,r))return null==r?(n.filter=void 0,void this._updateLayer(n)):void(this._validate(t.validateStyle.filter,\\\"layers.\\\"+n.id+\\\".filter\\\",r)||(n.filter=t.clone(r),this._updateLayer(n)))}else this.fire(new t.ErrorEvent(new Error(\\\"The layer '\\\"+e+\\\"' does not exist in the map's style and cannot be filtered.\\\")))},r.prototype.getFilter=function(e){return t.clone(this.getLayer(e).filter)},r.prototype.setLayoutProperty=function(e,r,n){this._checkLoaded();var i=this.getLayer(e);i?t.default$10(i.getLayoutProperty(r),n)||(i.setLayoutProperty(r,n),this._updateLayer(i)):this.fire(new t.ErrorEvent(new Error(\\\"The layer '\\\"+e+\\\"' does not exist in the map's style and cannot be styled.\\\")))},r.prototype.getLayoutProperty=function(t,e){return this.getLayer(t).getLayoutProperty(e)},r.prototype.setPaintProperty=function(e,r,n){this._checkLoaded();var i=this.getLayer(e);if(i){if(!t.default$10(i.getPaintProperty(r),n)){var a=i._transitionablePaint._values[r].value.isDataDriven();i.setPaintProperty(r,n),(i._transitionablePaint._values[r].value.isDataDriven()||a)&&this._updateLayer(i),this._changed=!0,this._updatedPaintProps[e]=!0}}else this.fire(new t.ErrorEvent(new Error(\\\"The layer '\\\"+e+\\\"' does not exist in the map's style and cannot be styled.\\\")))},r.prototype.getPaintProperty=function(t,e){return this.getLayer(t).getPaintProperty(e)},r.prototype.getTransition=function(){return t.extend({duration:300,delay:0},this.stylesheet&&this.stylesheet.transition)},r.prototype.serialize=function(){var e=this;return t.filterObject({version:this.stylesheet.version,name:this.stylesheet.name,metadata:this.stylesheet.metadata,light:this.stylesheet.light,center:this.stylesheet.center,zoom:this.stylesheet.zoom,bearing:this.stylesheet.bearing,pitch:this.stylesheet.pitch,sprite:this.stylesheet.sprite,glyphs:this.stylesheet.glyphs,transition:this.stylesheet.transition,sources:t.mapObject(this.sourceCaches,function(t){return t.serialize()}),layers:this._order.map(function(t){return e._layers[t].serialize()})},function(t){return void 0!==t})},r.prototype._updateLayer=function(t){this._updatedLayers[t.id]=!0,t.source&&!this._updatedSources[t.source]&&(this._updatedSources[t.source]=\\\"reload\\\",this.sourceCaches[t.source].pause()),this._changed=!0},r.prototype._flattenRenderedFeatures=function(t){for(var e=[],r=this._order.length-1;r>=0;r--)for(var n=this._order[r],i=0,a=t;i<a.length;i+=1){var o=a[i][n];if(o)for(var s=0,l=o;s<l.length;s+=1){var c=l[s];e.push(c)}}return e},r.prototype.queryRenderedFeatures=function(e,r,n){r&&r.filter&&this._validate(t.validateStyle.filter,\\\"queryRenderedFeatures.filter\\\",r.filter);var i={};if(r&&r.layers){if(!Array.isArray(r.layers))return this.fire(new t.ErrorEvent(new Error(\\\"parameters.layers must be an Array.\\\"))),[];for(var a=0,o=r.layers;a<o.length;a+=1){var s=o[a],l=this._layers[s];if(!l)return this.fire(new t.ErrorEvent(new Error(\\\"The layer '\\\"+s+\\\"' does not exist in the map's style and cannot be queried for features.\\\"))),[];i[l.source]=!0}}var c=[];for(var u in this.sourceCaches)r.layers&&!i[u]||c.push(at(this.sourceCaches[u],this._layers,e.worldCoordinate,r,n));return this.placement&&c.push(function(t,e,r,n,i){for(var a={},o=n.queryRenderedSymbols(e),s=[],l=0,c=Object.keys(o).map(Number);l<c.length;l+=1){var u=c[l];s.push(i[u])}s.sort(ot);for(var f=function(){var e=p[h],n=e.featureIndex.lookupSymbolFeatures(o[e.bucketInstanceId],e.bucketIndex,e.sourceLayerIndex,r.filter,r.layers,t);for(var i in n){var s=a[i]=a[i]||[],l=n[i];l.sort(function(t,r){var n=e.featureSortOrder;if(n){var i=n.indexOf(t.featureIndex);return n.indexOf(r.featureIndex)-i}return r.featureIndex-t.featureIndex});for(var c=0,u=l;c<u.length;c+=1){var f=u[c];s.push(f.feature)}}},h=0,p=s;h<p.length;h+=1)f();return a}(this._layers,e.viewport,r,this.placement.collisionIndex,this.placement.retainedQueryData)),this._flattenRenderedFeatures(c)},r.prototype.querySourceFeatures=function(e,r){r&&r.filter&&this._validate(t.validateStyle.filter,\\\"querySourceFeatures.filter\\\",r.filter);var n=this.sourceCaches[e];return n?function(t,e){for(var r=t.getRenderableIds().map(function(e){return t.getTileByID(e)}),n=[],i={},a=0;a<r.length;a++){var o=r[a],s=o.tileID.canonical.key;i[s]||(i[s]=!0,o.querySourceFeatures(n,e))}return n}(n,r):[]},r.prototype.addSourceType=function(t,e,n){return r.getSourceType(t)?n(new Error('A source type called \\\"'+t+'\\\" already exists.')):(r.setSourceType(t,e),e.workerSourceURL?void this.dispatcher.broadcast(\\\"loadWorkerSource\\\",{name:t,url:e.workerSourceURL},n):n(null,null))},r.prototype.getLight=function(){return this.light.getLight()},r.prototype.setLight=function(e){this._checkLoaded();var r=this.light.getLight(),n=!1;for(var i in e)if(!t.default$10(e[i],r[i])){n=!0;break}if(n){var o={now:a.now(),transition:t.extend({duration:300,delay:0},this.stylesheet.transition)};this.light.setLight(e),this.light.updateTransitions(o)}},r.prototype._validate=function(e,r,n,i,a){return(!a||!1!==a.validate)&&Xe(this,e.call(t.validateStyle,t.extend({key:r,style:this.serialize(),value:n,styleSpec:t.default$5},i)))},r.prototype._remove=function(){for(var e in t.evented.off(\\\"pluginAvailable\\\",this._rtlTextPluginCallback),this.sourceCaches)this.sourceCaches[e].clearTiles();this.dispatcher.remove()},r.prototype._clearSource=function(t){this.sourceCaches[t].clearTiles()},r.prototype._reloadSource=function(t){this.sourceCaches[t].resume(),this.sourceCaches[t].reload()},r.prototype._updateSources=function(t){for(var e in this.sourceCaches)this.sourceCaches[e].update(t)},r.prototype._generateCollisionBoxes=function(){for(var t in this.sourceCaches)this._reloadSource(t)},r.prototype._updatePlacement=function(t,e,r){for(var n=!1,i=!1,o={},s=0,l=this._order;s<l.length;s+=1){var c=l[s],u=this._layers[c];if(\\\"symbol\\\"===u.type){if(!o[u.source]){var f=this.sourceCaches[u.source];o[u.source]=f.getRenderableIds().map(function(t){return f.getTileByID(t)}).sort(function(t,e){return e.tileID.overscaledZ-t.tileID.overscaledZ||(t.tileID.isLessThan(e.tileID)?-1:1)})}var h=this.crossTileSymbolIndex.addLayer(u,o[u.source],t.center.lng);n=n||h}}this.crossTileSymbolIndex.pruneUnusedLayers(this._order);var p=this._layerOrderChanged;if((p||!this.pauseablePlacement||this.pauseablePlacement.isDone()&&!this.placement.stillRecent(a.now()))&&(this.pauseablePlacement=new Ue(t,this._order,p,e,r),this._layerOrderChanged=!1),this.pauseablePlacement.isDone()?this.placement.setStale():(this.pauseablePlacement.continuePlacement(this._order,this._layers,o),this.pauseablePlacement.isDone()&&(this.placement=this.pauseablePlacement.commit(this.placement,a.now()),i=!0),n&&this.pauseablePlacement.placement.setStale()),i||n)for(var d=0,g=this._order;d<g.length;d+=1){var v=g[d],m=this._layers[v];\\\"symbol\\\"===m.type&&this.placement.updateLayerOpacities(m,o[m.source])}return!this.pauseablePlacement.isDone()||this.placement.hasTransitions(a.now())},r.prototype.getImages=function(t,e,r){this.imageManager.getImages(e.icons,r)},r.prototype.getGlyphs=function(t,e,r){this.glyphManager.getGlyphs(e.stacks,r)},r}(t.Evented);Je.getSourceType=function(t){return nt[t]},Je.setSourceType=function(t,e){nt[t]=e},Je.registerForPluginAvailability=t.registerForPluginAvailability;var Ke=t.createLayout([{name:\\\"a_pos\\\",type:\\\"Int16\\\",components:2}]),Qe={prelude:{fragmentSource:\\\"#ifdef GL_ES\\\\nprecision mediump float;\\\\n#else\\\\n\\\\n#if !defined(lowp)\\\\n#define lowp\\\\n#endif\\\\n\\\\n#if !defined(mediump)\\\\n#define mediump\\\\n#endif\\\\n\\\\n#if !defined(highp)\\\\n#define highp\\\\n#endif\\\\n\\\\n#endif\\\\n\\\",vertexSource:\\\"#ifdef GL_ES\\\\nprecision highp float;\\\\n#else\\\\n\\\\n#if !defined(lowp)\\\\n#define lowp\\\\n#endif\\\\n\\\\n#if !defined(mediump)\\\\n#define mediump\\\\n#endif\\\\n\\\\n#if !defined(highp)\\\\n#define highp\\\\n#endif\\\\n\\\\n#endif\\\\n\\\\n// Unpack a pair of values that have been packed into a single float.\\\\n// The packed values are assumed to be 8-bit unsigned integers, and are\\\\n// packed like so:\\\\n// packedValue = floor(input[0]) * 256 + input[1],\\\\nvec2 unpack_float(const float packedValue) {\\\\n    int packedIntValue = int(packedValue);\\\\n    int v0 = packedIntValue / 256;\\\\n    return vec2(v0, packedIntValue - v0 * 256);\\\\n}\\\\n\\\\nvec2 unpack_opacity(const float packedOpacity) {\\\\n    int intOpacity = int(packedOpacity) / 2;\\\\n    return vec2(float(intOpacity) / 127.0, mod(packedOpacity, 2.0));\\\\n}\\\\n\\\\n// To minimize the number of attributes needed, we encode a 4-component\\\\n// color into a pair of floats (i.e. a vec2) as follows:\\\\n// [ floor(color.r * 255) * 256 + color.g * 255,\\\\n//   floor(color.b * 255) * 256 + color.g * 255 ]\\\\nvec4 decode_color(const vec2 encodedColor) {\\\\n    return vec4(\\\\n        unpack_float(encodedColor[0]) / 255.0,\\\\n        unpack_float(encodedColor[1]) / 255.0\\\\n    );\\\\n}\\\\n\\\\n// Unpack a pair of paint values and interpolate between them.\\\\nfloat unpack_mix_vec2(const vec2 packedValue, const float t) {\\\\n    return mix(packedValue[0], packedValue[1], t);\\\\n}\\\\n\\\\n// Unpack a pair of paint values and interpolate between them.\\\\nvec4 unpack_mix_vec4(const vec4 packedColors, const float t) {\\\\n    vec4 minColor = decode_color(vec2(packedColors[0], packedColors[1]));\\\\n    vec4 maxColor = decode_color(vec2(packedColors[2], packedColors[3]));\\\\n    return mix(minColor, maxColor, t);\\\\n}\\\\n\\\\n// The offset depends on how many pixels are between the world origin and the edge of the tile:\\\\n// vec2 offset = mod(pixel_coord, size)\\\\n//\\\\n// At high zoom levels there are a ton of pixels between the world origin and the edge of the tile.\\\\n// The glsl spec only guarantees 16 bits of precision for highp floats. We need more than that.\\\\n//\\\\n// The pixel_coord is passed in as two 16 bit values:\\\\n// pixel_coord_upper = floor(pixel_coord / 2^16)\\\\n// pixel_coord_lower = mod(pixel_coord, 2^16)\\\\n//\\\\n// The offset is calculated in a series of steps that should preserve this precision:\\\\nvec2 get_pattern_pos(const vec2 pixel_coord_upper, const vec2 pixel_coord_lower,\\\\n    const vec2 pattern_size, const float tile_units_to_pixels, const vec2 pos) {\\\\n\\\\n    vec2 offset = mod(mod(mod(pixel_coord_upper, pattern_size) * 256.0, pattern_size) * 256.0 + pixel_coord_lower, pattern_size);\\\\n    return (tile_units_to_pixels * pos + offset) / pattern_size;\\\\n}\\\\n\\\"},background:{fragmentSource:\\\"uniform vec4 u_color;\\\\nuniform float u_opacity;\\\\n\\\\nvoid main() {\\\\n    gl_FragColor = u_color * u_opacity;\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"attribute vec2 a_pos;\\\\n\\\\nuniform mat4 u_matrix;\\\\n\\\\nvoid main() {\\\\n    gl_Position = u_matrix * vec4(a_pos, 0, 1);\\\\n}\\\\n\\\"},backgroundPattern:{fragmentSource:\\\"uniform vec2 u_pattern_tl_a;\\\\nuniform vec2 u_pattern_br_a;\\\\nuniform vec2 u_pattern_tl_b;\\\\nuniform vec2 u_pattern_br_b;\\\\nuniform vec2 u_texsize;\\\\nuniform float u_mix;\\\\nuniform float u_opacity;\\\\n\\\\nuniform sampler2D u_image;\\\\n\\\\nvarying vec2 v_pos_a;\\\\nvarying vec2 v_pos_b;\\\\n\\\\nvoid main() {\\\\n    vec2 imagecoord = mod(v_pos_a, 1.0);\\\\n    vec2 pos = mix(u_pattern_tl_a / u_texsize, u_pattern_br_a / u_texsize, imagecoord);\\\\n    vec4 color1 = texture2D(u_image, pos);\\\\n\\\\n    vec2 imagecoord_b = mod(v_pos_b, 1.0);\\\\n    vec2 pos2 = mix(u_pattern_tl_b / u_texsize, u_pattern_br_b / u_texsize, imagecoord_b);\\\\n    vec4 color2 = texture2D(u_image, pos2);\\\\n\\\\n    gl_FragColor = mix(color1, color2, u_mix) * u_opacity;\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"uniform mat4 u_matrix;\\\\nuniform vec2 u_pattern_size_a;\\\\nuniform vec2 u_pattern_size_b;\\\\nuniform vec2 u_pixel_coord_upper;\\\\nuniform vec2 u_pixel_coord_lower;\\\\nuniform float u_scale_a;\\\\nuniform float u_scale_b;\\\\nuniform float u_tile_units_to_pixels;\\\\n\\\\nattribute vec2 a_pos;\\\\n\\\\nvarying vec2 v_pos_a;\\\\nvarying vec2 v_pos_b;\\\\n\\\\nvoid main() {\\\\n    gl_Position = u_matrix * vec4(a_pos, 0, 1);\\\\n\\\\n    v_pos_a = get_pattern_pos(u_pixel_coord_upper, u_pixel_coord_lower, u_scale_a * u_pattern_size_a, u_tile_units_to_pixels, a_pos);\\\\n    v_pos_b = get_pattern_pos(u_pixel_coord_upper, u_pixel_coord_lower, u_scale_b * u_pattern_size_b, u_tile_units_to_pixels, a_pos);\\\\n}\\\\n\\\"},circle:{fragmentSource:\\\"#pragma mapbox: define highp vec4 color\\\\n#pragma mapbox: define mediump float radius\\\\n#pragma mapbox: define lowp float blur\\\\n#pragma mapbox: define lowp float opacity\\\\n#pragma mapbox: define highp vec4 stroke_color\\\\n#pragma mapbox: define mediump float stroke_width\\\\n#pragma mapbox: define lowp float stroke_opacity\\\\n\\\\nvarying vec3 v_data;\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize highp vec4 color\\\\n    #pragma mapbox: initialize mediump float radius\\\\n    #pragma mapbox: initialize lowp float blur\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n    #pragma mapbox: initialize highp vec4 stroke_color\\\\n    #pragma mapbox: initialize mediump float stroke_width\\\\n    #pragma mapbox: initialize lowp float stroke_opacity\\\\n\\\\n    vec2 extrude = v_data.xy;\\\\n    float extrude_length = length(extrude);\\\\n\\\\n    lowp float antialiasblur = v_data.z;\\\\n    float antialiased_blur = -max(blur, antialiasblur);\\\\n\\\\n    float opacity_t = smoothstep(0.0, antialiased_blur, extrude_length - 1.0);\\\\n\\\\n    float color_t = stroke_width < 0.01 ? 0.0 : smoothstep(\\\\n        antialiased_blur,\\\\n        0.0,\\\\n        extrude_length - radius / (radius + stroke_width)\\\\n    );\\\\n\\\\n    gl_FragColor = opacity_t * mix(color * opacity, stroke_color * stroke_opacity, color_t);\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"uniform mat4 u_matrix;\\\\nuniform bool u_scale_with_map;\\\\nuniform bool u_pitch_with_map;\\\\nuniform vec2 u_extrude_scale;\\\\nuniform highp float u_camera_to_center_distance;\\\\n\\\\nattribute vec2 a_pos;\\\\n\\\\n#pragma mapbox: define highp vec4 color\\\\n#pragma mapbox: define mediump float radius\\\\n#pragma mapbox: define lowp float blur\\\\n#pragma mapbox: define lowp float opacity\\\\n#pragma mapbox: define highp vec4 stroke_color\\\\n#pragma mapbox: define mediump float stroke_width\\\\n#pragma mapbox: define lowp float stroke_opacity\\\\n\\\\nvarying vec3 v_data;\\\\n\\\\nvoid main(void) {\\\\n    #pragma mapbox: initialize highp vec4 color\\\\n    #pragma mapbox: initialize mediump float radius\\\\n    #pragma mapbox: initialize lowp float blur\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n    #pragma mapbox: initialize highp vec4 stroke_color\\\\n    #pragma mapbox: initialize mediump float stroke_width\\\\n    #pragma mapbox: initialize lowp float stroke_opacity\\\\n\\\\n    // unencode the extrusion vector that we snuck into the a_pos vector\\\\n    vec2 extrude = vec2(mod(a_pos, 2.0) * 2.0 - 1.0);\\\\n\\\\n    // multiply a_pos by 0.5, since we had it * 2 in order to sneak\\\\n    // in extrusion data\\\\n    vec2 circle_center = floor(a_pos * 0.5);\\\\n    if (u_pitch_with_map) {\\\\n        vec2 corner_position = circle_center;\\\\n        if (u_scale_with_map) {\\\\n            corner_position += extrude * (radius + stroke_width) * u_extrude_scale;\\\\n        } else {\\\\n            // Pitching the circle with the map effectively scales it with the map\\\\n            // To counteract the effect for pitch-scale: viewport, we rescale the\\\\n            // whole circle based on the pitch scaling effect at its central point\\\\n            vec4 projected_center = u_matrix * vec4(circle_center, 0, 1);\\\\n            corner_position += extrude * (radius + stroke_width) * u_extrude_scale * (projected_center.w / u_camera_to_center_distance);\\\\n        }\\\\n\\\\n        gl_Position = u_matrix * vec4(corner_position, 0, 1);\\\\n    } else {\\\\n        gl_Position = u_matrix * vec4(circle_center, 0, 1);\\\\n\\\\n        if (u_scale_with_map) {\\\\n            gl_Position.xy += extrude * (radius + stroke_width) * u_extrude_scale * u_camera_to_center_distance;\\\\n        } else {\\\\n            gl_Position.xy += extrude * (radius + stroke_width) * u_extrude_scale * gl_Position.w;\\\\n        }\\\\n    }\\\\n\\\\n    // This is a minimum blur distance that serves as a faux-antialiasing for\\\\n    // the circle. since blur is a ratio of the circle's size and the intent is\\\\n    // to keep the blur at roughly 1px, the two are inversely related.\\\\n    lowp float antialiasblur = 1.0 / DEVICE_PIXEL_RATIO / (radius + stroke_width);\\\\n\\\\n    v_data = vec3(extrude.x, extrude.y, antialiasblur);\\\\n}\\\\n\\\"},clippingMask:{fragmentSource:\\\"void main() {\\\\n    gl_FragColor = vec4(1.0);\\\\n}\\\\n\\\",vertexSource:\\\"attribute vec2 a_pos;\\\\n\\\\nuniform mat4 u_matrix;\\\\n\\\\nvoid main() {\\\\n    gl_Position = u_matrix * vec4(a_pos, 0, 1);\\\\n}\\\\n\\\"},heatmap:{fragmentSource:\\\"#pragma mapbox: define highp float weight\\\\n\\\\nuniform highp float u_intensity;\\\\nvarying vec2 v_extrude;\\\\n\\\\n// Gaussian kernel coefficient: 1 / sqrt(2 * PI)\\\\n#define GAUSS_COEF 0.3989422804014327\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize highp float weight\\\\n\\\\n    // Kernel density estimation with a Gaussian kernel of size 5x5\\\\n    float d = -0.5 * 3.0 * 3.0 * dot(v_extrude, v_extrude);\\\\n    float val = weight * u_intensity * GAUSS_COEF * exp(d);\\\\n\\\\n    gl_FragColor = vec4(val, 1.0, 1.0, 1.0);\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"#pragma mapbox: define highp float weight\\\\n#pragma mapbox: define mediump float radius\\\\n\\\\nuniform mat4 u_matrix;\\\\nuniform float u_extrude_scale;\\\\nuniform float u_opacity;\\\\nuniform float u_intensity;\\\\n\\\\nattribute vec2 a_pos;\\\\n\\\\nvarying vec2 v_extrude;\\\\n\\\\n// Effective \\\\\\\"0\\\\\\\" in the kernel density texture to adjust the kernel size to;\\\\n// this empirically chosen number minimizes artifacts on overlapping kernels\\\\n// for typical heatmap cases (assuming clustered source)\\\\nconst highp float ZERO = 1.0 / 255.0 / 16.0;\\\\n\\\\n// Gaussian kernel coefficient: 1 / sqrt(2 * PI)\\\\n#define GAUSS_COEF 0.3989422804014327\\\\n\\\\nvoid main(void) {\\\\n    #pragma mapbox: initialize highp float weight\\\\n    #pragma mapbox: initialize mediump float radius\\\\n\\\\n    // unencode the extrusion vector that we snuck into the a_pos vector\\\\n    vec2 unscaled_extrude = vec2(mod(a_pos, 2.0) * 2.0 - 1.0);\\\\n\\\\n    // This 'extrude' comes in ranging from [-1, -1], to [1, 1].  We'll use\\\\n    // it to produce the vertices of a square mesh framing the point feature\\\\n    // we're adding to the kernel density texture.  We'll also pass it as\\\\n    // a varying, so that the fragment shader can determine the distance of\\\\n    // each fragment from the point feature.\\\\n    // Before we do so, we need to scale it up sufficiently so that the\\\\n    // kernel falls effectively to zero at the edge of the mesh.\\\\n    // That is, we want to know S such that\\\\n    // weight * u_intensity * GAUSS_COEF * exp(-0.5 * 3.0^2 * S^2) == ZERO\\\\n    // Which solves to:\\\\n    // S = sqrt(-2.0 * log(ZERO / (weight * u_intensity * GAUSS_COEF))) / 3.0\\\\n    float S = sqrt(-2.0 * log(ZERO / weight / u_intensity / GAUSS_COEF)) / 3.0;\\\\n\\\\n    // Pass the varying in units of radius\\\\n    v_extrude = S * unscaled_extrude;\\\\n\\\\n    // Scale by radius and the zoom-based scale factor to produce actual\\\\n    // mesh position\\\\n    vec2 extrude = v_extrude * radius * u_extrude_scale;\\\\n\\\\n    // multiply a_pos by 0.5, since we had it * 2 in order to sneak\\\\n    // in extrusion data\\\\n    vec4 pos = vec4(floor(a_pos * 0.5) + extrude, 0, 1);\\\\n\\\\n    gl_Position = u_matrix * pos;\\\\n}\\\\n\\\"},heatmapTexture:{fragmentSource:\\\"uniform sampler2D u_image;\\\\nuniform sampler2D u_color_ramp;\\\\nuniform float u_opacity;\\\\nvarying vec2 v_pos;\\\\n\\\\nvoid main() {\\\\n    float t = texture2D(u_image, v_pos).r;\\\\n    vec4 color = texture2D(u_color_ramp, vec2(t, 0.5));\\\\n    gl_FragColor = color * u_opacity;\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(0.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"uniform mat4 u_matrix;\\\\nuniform vec2 u_world;\\\\nattribute vec2 a_pos;\\\\nvarying vec2 v_pos;\\\\n\\\\nvoid main() {\\\\n    gl_Position = u_matrix * vec4(a_pos * u_world, 0, 1);\\\\n\\\\n    v_pos.x = a_pos.x;\\\\n    v_pos.y = 1.0 - a_pos.y;\\\\n}\\\\n\\\"},collisionBox:{fragmentSource:\\\"\\\\nvarying float v_placed;\\\\nvarying float v_notUsed;\\\\n\\\\nvoid main() {\\\\n\\\\n    float alpha = 0.5;\\\\n\\\\n    // Red = collision, hide label\\\\n    gl_FragColor = vec4(1.0, 0.0, 0.0, 1.0) * alpha;\\\\n\\\\n    // Blue = no collision, label is showing\\\\n    if (v_placed > 0.5) {\\\\n        gl_FragColor = vec4(0.0, 0.0, 1.0, 0.5) * alpha;\\\\n    }\\\\n\\\\n    if (v_notUsed > 0.5) {\\\\n        // This box not used, fade it out\\\\n        gl_FragColor *= .1;\\\\n    }\\\\n}\\\",vertexSource:\\\"attribute vec2 a_pos;\\\\nattribute vec2 a_anchor_pos;\\\\nattribute vec2 a_extrude;\\\\nattribute vec2 a_placed;\\\\n\\\\nuniform mat4 u_matrix;\\\\nuniform vec2 u_extrude_scale;\\\\nuniform float u_camera_to_center_distance;\\\\n\\\\nvarying float v_placed;\\\\nvarying float v_notUsed;\\\\n\\\\nvoid main() {\\\\n    vec4 projectedPoint = u_matrix * vec4(a_anchor_pos, 0, 1);\\\\n    highp float camera_to_anchor_distance = projectedPoint.w;\\\\n    highp float collision_perspective_ratio = clamp(\\\\n        0.5 + 0.5 * (u_camera_to_center_distance / camera_to_anchor_distance),\\\\n        0.0, // Prevents oversized near-field boxes in pitched/overzoomed tiles\\\\n        4.0);\\\\n\\\\n    gl_Position = u_matrix * vec4(a_pos, 0.0, 1.0);\\\\n    gl_Position.xy += a_extrude * u_extrude_scale * gl_Position.w * collision_perspective_ratio;\\\\n\\\\n    v_placed = a_placed.x;\\\\n    v_notUsed = a_placed.y;\\\\n}\\\\n\\\"},collisionCircle:{fragmentSource:\\\"uniform float u_overscale_factor;\\\\n\\\\nvarying float v_placed;\\\\nvarying float v_notUsed;\\\\nvarying float v_radius;\\\\nvarying vec2 v_extrude;\\\\nvarying vec2 v_extrude_scale;\\\\n\\\\nvoid main() {\\\\n    float alpha = 0.5;\\\\n\\\\n    // Red = collision, hide label\\\\n    vec4 color = vec4(1.0, 0.0, 0.0, 1.0) * alpha;\\\\n\\\\n    // Blue = no collision, label is showing\\\\n    if (v_placed > 0.5) {\\\\n        color = vec4(0.0, 0.0, 1.0, 0.5) * alpha;\\\\n    }\\\\n\\\\n    if (v_notUsed > 0.5) {\\\\n        // This box not used, fade it out\\\\n        color *= .2;\\\\n    }\\\\n\\\\n    float extrude_scale_length = length(v_extrude_scale);\\\\n    float extrude_length = length(v_extrude) * extrude_scale_length;\\\\n    float stroke_width = 15.0 * extrude_scale_length / u_overscale_factor;\\\\n    float radius = v_radius * extrude_scale_length;\\\\n\\\\n    float distance_to_edge = abs(extrude_length - radius);\\\\n    float opacity_t = smoothstep(-stroke_width, 0.0, -distance_to_edge);\\\\n\\\\n    gl_FragColor = opacity_t * color;\\\\n}\\\\n\\\",vertexSource:\\\"attribute vec2 a_pos;\\\\nattribute vec2 a_anchor_pos;\\\\nattribute vec2 a_extrude;\\\\nattribute vec2 a_placed;\\\\n\\\\nuniform mat4 u_matrix;\\\\nuniform vec2 u_extrude_scale;\\\\nuniform float u_camera_to_center_distance;\\\\n\\\\nvarying float v_placed;\\\\nvarying float v_notUsed;\\\\nvarying float v_radius;\\\\n\\\\nvarying vec2 v_extrude;\\\\nvarying vec2 v_extrude_scale;\\\\n\\\\nvoid main() {\\\\n    vec4 projectedPoint = u_matrix * vec4(a_anchor_pos, 0, 1);\\\\n    highp float camera_to_anchor_distance = projectedPoint.w;\\\\n    highp float collision_perspective_ratio = clamp(\\\\n        0.5 + 0.5 * (u_camera_to_center_distance / camera_to_anchor_distance),\\\\n        0.0, // Prevents oversized near-field circles in pitched/overzoomed tiles\\\\n        4.0);\\\\n\\\\n    gl_Position = u_matrix * vec4(a_pos, 0.0, 1.0);\\\\n\\\\n    highp float padding_factor = 1.2; // Pad the vertices slightly to make room for anti-alias blur\\\\n    gl_Position.xy += a_extrude * u_extrude_scale * padding_factor * gl_Position.w * collision_perspective_ratio;\\\\n\\\\n    v_placed = a_placed.x;\\\\n    v_notUsed = a_placed.y;\\\\n    v_radius = abs(a_extrude.y); // We don't pitch the circles, so both units of the extrusion vector are equal in magnitude to the radius\\\\n\\\\n    v_extrude = a_extrude * padding_factor;\\\\n    v_extrude_scale = u_extrude_scale * u_camera_to_center_distance * collision_perspective_ratio;\\\\n}\\\\n\\\"},debug:{fragmentSource:\\\"uniform highp vec4 u_color;\\\\n\\\\nvoid main() {\\\\n    gl_FragColor = u_color;\\\\n}\\\\n\\\",vertexSource:\\\"attribute vec2 a_pos;\\\\n\\\\nuniform mat4 u_matrix;\\\\n\\\\nvoid main() {\\\\n    gl_Position = u_matrix * vec4(a_pos, 0, 1);\\\\n}\\\\n\\\"},fill:{fragmentSource:\\\"#pragma mapbox: define highp vec4 color\\\\n#pragma mapbox: define lowp float opacity\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize highp vec4 color\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n\\\\n    gl_FragColor = color * opacity;\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"attribute vec2 a_pos;\\\\n\\\\nuniform mat4 u_matrix;\\\\n\\\\n#pragma mapbox: define highp vec4 color\\\\n#pragma mapbox: define lowp float opacity\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize highp vec4 color\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n\\\\n    gl_Position = u_matrix * vec4(a_pos, 0, 1);\\\\n}\\\\n\\\"},fillOutline:{fragmentSource:\\\"#pragma mapbox: define highp vec4 outline_color\\\\n#pragma mapbox: define lowp float opacity\\\\n\\\\nvarying vec2 v_pos;\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize highp vec4 outline_color\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n\\\\n    float dist = length(v_pos - gl_FragCoord.xy);\\\\n    float alpha = 1.0 - smoothstep(0.0, 1.0, dist);\\\\n    gl_FragColor = outline_color * (alpha * opacity);\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"attribute vec2 a_pos;\\\\n\\\\nuniform mat4 u_matrix;\\\\nuniform vec2 u_world;\\\\n\\\\nvarying vec2 v_pos;\\\\n\\\\n#pragma mapbox: define highp vec4 outline_color\\\\n#pragma mapbox: define lowp float opacity\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize highp vec4 outline_color\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n\\\\n    gl_Position = u_matrix * vec4(a_pos, 0, 1);\\\\n    v_pos = (gl_Position.xy / gl_Position.w + 1.0) / 2.0 * u_world;\\\\n}\\\\n\\\"},fillOutlinePattern:{fragmentSource:\\\"uniform vec2 u_pattern_tl_a;\\\\nuniform vec2 u_pattern_br_a;\\\\nuniform vec2 u_pattern_tl_b;\\\\nuniform vec2 u_pattern_br_b;\\\\nuniform vec2 u_texsize;\\\\nuniform float u_mix;\\\\n\\\\nuniform sampler2D u_image;\\\\n\\\\nvarying vec2 v_pos_a;\\\\nvarying vec2 v_pos_b;\\\\nvarying vec2 v_pos;\\\\n\\\\n#pragma mapbox: define lowp float opacity\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n\\\\n    vec2 imagecoord = mod(v_pos_a, 1.0);\\\\n    vec2 pos = mix(u_pattern_tl_a / u_texsize, u_pattern_br_a / u_texsize, imagecoord);\\\\n    vec4 color1 = texture2D(u_image, pos);\\\\n\\\\n    vec2 imagecoord_b = mod(v_pos_b, 1.0);\\\\n    vec2 pos2 = mix(u_pattern_tl_b / u_texsize, u_pattern_br_b / u_texsize, imagecoord_b);\\\\n    vec4 color2 = texture2D(u_image, pos2);\\\\n\\\\n    // find distance to outline for alpha interpolation\\\\n\\\\n    float dist = length(v_pos - gl_FragCoord.xy);\\\\n    float alpha = 1.0 - smoothstep(0.0, 1.0, dist);\\\\n\\\\n\\\\n    gl_FragColor = mix(color1, color2, u_mix) * alpha * opacity;\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"uniform mat4 u_matrix;\\\\nuniform vec2 u_world;\\\\nuniform vec2 u_pattern_size_a;\\\\nuniform vec2 u_pattern_size_b;\\\\nuniform vec2 u_pixel_coord_upper;\\\\nuniform vec2 u_pixel_coord_lower;\\\\nuniform float u_scale_a;\\\\nuniform float u_scale_b;\\\\nuniform float u_tile_units_to_pixels;\\\\n\\\\nattribute vec2 a_pos;\\\\n\\\\nvarying vec2 v_pos_a;\\\\nvarying vec2 v_pos_b;\\\\nvarying vec2 v_pos;\\\\n\\\\n#pragma mapbox: define lowp float opacity\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n\\\\n    gl_Position = u_matrix * vec4(a_pos, 0, 1);\\\\n\\\\n    v_pos_a = get_pattern_pos(u_pixel_coord_upper, u_pixel_coord_lower, u_scale_a * u_pattern_size_a, u_tile_units_to_pixels, a_pos);\\\\n    v_pos_b = get_pattern_pos(u_pixel_coord_upper, u_pixel_coord_lower, u_scale_b * u_pattern_size_b, u_tile_units_to_pixels, a_pos);\\\\n\\\\n    v_pos = (gl_Position.xy / gl_Position.w + 1.0) / 2.0 * u_world;\\\\n}\\\\n\\\"},fillPattern:{fragmentSource:\\\"uniform vec2 u_pattern_tl_a;\\\\nuniform vec2 u_pattern_br_a;\\\\nuniform vec2 u_pattern_tl_b;\\\\nuniform vec2 u_pattern_br_b;\\\\nuniform vec2 u_texsize;\\\\nuniform float u_mix;\\\\n\\\\nuniform sampler2D u_image;\\\\n\\\\nvarying vec2 v_pos_a;\\\\nvarying vec2 v_pos_b;\\\\n\\\\n#pragma mapbox: define lowp float opacity\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n\\\\n    vec2 imagecoord = mod(v_pos_a, 1.0);\\\\n    vec2 pos = mix(u_pattern_tl_a / u_texsize, u_pattern_br_a / u_texsize, imagecoord);\\\\n    vec4 color1 = texture2D(u_image, pos);\\\\n\\\\n    vec2 imagecoord_b = mod(v_pos_b, 1.0);\\\\n    vec2 pos2 = mix(u_pattern_tl_b / u_texsize, u_pattern_br_b / u_texsize, imagecoord_b);\\\\n    vec4 color2 = texture2D(u_image, pos2);\\\\n\\\\n    gl_FragColor = mix(color1, color2, u_mix) * opacity;\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"uniform mat4 u_matrix;\\\\nuniform vec2 u_pattern_size_a;\\\\nuniform vec2 u_pattern_size_b;\\\\nuniform vec2 u_pixel_coord_upper;\\\\nuniform vec2 u_pixel_coord_lower;\\\\nuniform float u_scale_a;\\\\nuniform float u_scale_b;\\\\nuniform float u_tile_units_to_pixels;\\\\n\\\\nattribute vec2 a_pos;\\\\n\\\\nvarying vec2 v_pos_a;\\\\nvarying vec2 v_pos_b;\\\\n\\\\n#pragma mapbox: define lowp float opacity\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n\\\\n    gl_Position = u_matrix * vec4(a_pos, 0, 1);\\\\n\\\\n    v_pos_a = get_pattern_pos(u_pixel_coord_upper, u_pixel_coord_lower, u_scale_a * u_pattern_size_a, u_tile_units_to_pixels, a_pos);\\\\n    v_pos_b = get_pattern_pos(u_pixel_coord_upper, u_pixel_coord_lower, u_scale_b * u_pattern_size_b, u_tile_units_to_pixels, a_pos);\\\\n}\\\\n\\\"},fillExtrusion:{fragmentSource:\\\"varying vec4 v_color;\\\\n#pragma mapbox: define lowp float base\\\\n#pragma mapbox: define lowp float height\\\\n#pragma mapbox: define highp vec4 color\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize lowp float base\\\\n    #pragma mapbox: initialize lowp float height\\\\n    #pragma mapbox: initialize highp vec4 color\\\\n\\\\n    gl_FragColor = v_color;\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"uniform mat4 u_matrix;\\\\nuniform vec3 u_lightcolor;\\\\nuniform lowp vec3 u_lightpos;\\\\nuniform lowp float u_lightintensity;\\\\n\\\\nattribute vec2 a_pos;\\\\nattribute vec4 a_normal_ed;\\\\n\\\\nvarying vec4 v_color;\\\\n\\\\n#pragma mapbox: define lowp float base\\\\n#pragma mapbox: define lowp float height\\\\n\\\\n#pragma mapbox: define highp vec4 color\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize lowp float base\\\\n    #pragma mapbox: initialize lowp float height\\\\n    #pragma mapbox: initialize highp vec4 color\\\\n\\\\n    vec3 normal = a_normal_ed.xyz;\\\\n\\\\n    base = max(0.0, base);\\\\n    height = max(0.0, height);\\\\n\\\\n    float t = mod(normal.x, 2.0);\\\\n\\\\n    gl_Position = u_matrix * vec4(a_pos, t > 0.0 ? height : base, 1);\\\\n\\\\n    // Relative luminance (how dark/bright is the surface color?)\\\\n    float colorvalue = color.r * 0.2126 + color.g * 0.7152 + color.b * 0.0722;\\\\n\\\\n    v_color = vec4(0.0, 0.0, 0.0, 1.0);\\\\n\\\\n    // Add slight ambient lighting so no extrusions are totally black\\\\n    vec4 ambientlight = vec4(0.03, 0.03, 0.03, 1.0);\\\\n    color += ambientlight;\\\\n\\\\n    // Calculate cos(theta), where theta is the angle between surface normal and diffuse light ray\\\\n    float directional = clamp(dot(normal / 16384.0, u_lightpos), 0.0, 1.0);\\\\n\\\\n    // Adjust directional so that\\\\n    // the range of values for highlight/shading is narrower\\\\n    // with lower light intensity\\\\n    // and with lighter/brighter surface colors\\\\n    directional = mix((1.0 - u_lightintensity), max((1.0 - colorvalue + u_lightintensity), 1.0), directional);\\\\n\\\\n    // Add gradient along z axis of side surfaces\\\\n    if (normal.y != 0.0) {\\\\n        directional *= clamp((t + base) * pow(height / 150.0, 0.5), mix(0.7, 0.98, 1.0 - u_lightintensity), 1.0);\\\\n    }\\\\n\\\\n    // Assign final color based on surface + ambient light color, diffuse light directional, and light color\\\\n    // with lower bounds adjusted to hue of light\\\\n    // so that shading is tinted with the complementary (opposite) color to the light color\\\\n    v_color.r += clamp(color.r * directional * u_lightcolor.r, mix(0.0, 0.3, 1.0 - u_lightcolor.r), 1.0);\\\\n    v_color.g += clamp(color.g * directional * u_lightcolor.g, mix(0.0, 0.3, 1.0 - u_lightcolor.g), 1.0);\\\\n    v_color.b += clamp(color.b * directional * u_lightcolor.b, mix(0.0, 0.3, 1.0 - u_lightcolor.b), 1.0);\\\\n}\\\\n\\\"},fillExtrusionPattern:{fragmentSource:\\\"uniform vec2 u_pattern_tl_a;\\\\nuniform vec2 u_pattern_br_a;\\\\nuniform vec2 u_pattern_tl_b;\\\\nuniform vec2 u_pattern_br_b;\\\\nuniform vec2 u_texsize;\\\\nuniform float u_mix;\\\\n\\\\nuniform sampler2D u_image;\\\\n\\\\nvarying vec2 v_pos_a;\\\\nvarying vec2 v_pos_b;\\\\nvarying vec4 v_lighting;\\\\n\\\\n#pragma mapbox: define lowp float base\\\\n#pragma mapbox: define lowp float height\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize lowp float base\\\\n    #pragma mapbox: initialize lowp float height\\\\n\\\\n    vec2 imagecoord = mod(v_pos_a, 1.0);\\\\n    vec2 pos = mix(u_pattern_tl_a / u_texsize, u_pattern_br_a / u_texsize, imagecoord);\\\\n    vec4 color1 = texture2D(u_image, pos);\\\\n\\\\n    vec2 imagecoord_b = mod(v_pos_b, 1.0);\\\\n    vec2 pos2 = mix(u_pattern_tl_b / u_texsize, u_pattern_br_b / u_texsize, imagecoord_b);\\\\n    vec4 color2 = texture2D(u_image, pos2);\\\\n\\\\n    vec4 mixedColor = mix(color1, color2, u_mix);\\\\n\\\\n    gl_FragColor = mixedColor * v_lighting;\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"uniform mat4 u_matrix;\\\\nuniform vec2 u_pattern_size_a;\\\\nuniform vec2 u_pattern_size_b;\\\\nuniform vec2 u_pixel_coord_upper;\\\\nuniform vec2 u_pixel_coord_lower;\\\\nuniform float u_scale_a;\\\\nuniform float u_scale_b;\\\\nuniform float u_tile_units_to_pixels;\\\\nuniform float u_height_factor;\\\\n\\\\nuniform vec3 u_lightcolor;\\\\nuniform lowp vec3 u_lightpos;\\\\nuniform lowp float u_lightintensity;\\\\n\\\\nattribute vec2 a_pos;\\\\nattribute vec4 a_normal_ed;\\\\n\\\\nvarying vec2 v_pos_a;\\\\nvarying vec2 v_pos_b;\\\\nvarying vec4 v_lighting;\\\\nvarying float v_directional;\\\\n\\\\n#pragma mapbox: define lowp float base\\\\n#pragma mapbox: define lowp float height\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize lowp float base\\\\n    #pragma mapbox: initialize lowp float height\\\\n\\\\n    vec3 normal = a_normal_ed.xyz;\\\\n    float edgedistance = a_normal_ed.w;\\\\n\\\\n    base = max(0.0, base);\\\\n    height = max(0.0, height);\\\\n\\\\n    float t = mod(normal.x, 2.0);\\\\n    float z = t > 0.0 ? height : base;\\\\n\\\\n    gl_Position = u_matrix * vec4(a_pos, z, 1);\\\\n\\\\n    vec2 pos = normal.x == 1.0 && normal.y == 0.0 && normal.z == 16384.0\\\\n        ? a_pos // extrusion top\\\\n        : vec2(edgedistance, z * u_height_factor); // extrusion side\\\\n\\\\n    v_pos_a = get_pattern_pos(u_pixel_coord_upper, u_pixel_coord_lower, u_scale_a * u_pattern_size_a, u_tile_units_to_pixels, pos);\\\\n    v_pos_b = get_pattern_pos(u_pixel_coord_upper, u_pixel_coord_lower, u_scale_b * u_pattern_size_b, u_tile_units_to_pixels, pos);\\\\n\\\\n    v_lighting = vec4(0.0, 0.0, 0.0, 1.0);\\\\n    float directional = clamp(dot(normal / 16383.0, u_lightpos), 0.0, 1.0);\\\\n    directional = mix((1.0 - u_lightintensity), max((0.5 + u_lightintensity), 1.0), directional);\\\\n\\\\n    if (normal.y != 0.0) {\\\\n        directional *= clamp((t + base) * pow(height / 150.0, 0.5), mix(0.7, 0.98, 1.0 - u_lightintensity), 1.0);\\\\n    }\\\\n\\\\n    v_lighting.rgb += clamp(directional * u_lightcolor, mix(vec3(0.0), vec3(0.3), 1.0 - u_lightcolor), vec3(1.0));\\\\n}\\\\n\\\"},extrusionTexture:{fragmentSource:\\\"uniform sampler2D u_image;\\\\nuniform float u_opacity;\\\\nvarying vec2 v_pos;\\\\n\\\\nvoid main() {\\\\n    gl_FragColor = texture2D(u_image, v_pos) * u_opacity;\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(0.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"uniform mat4 u_matrix;\\\\nuniform vec2 u_world;\\\\nattribute vec2 a_pos;\\\\nvarying vec2 v_pos;\\\\n\\\\nvoid main() {\\\\n    gl_Position = u_matrix * vec4(a_pos * u_world, 0, 1);\\\\n\\\\n    v_pos.x = a_pos.x;\\\\n    v_pos.y = 1.0 - a_pos.y;\\\\n}\\\\n\\\"},hillshadePrepare:{fragmentSource:\\\"#ifdef GL_ES\\\\nprecision highp float;\\\\n#endif\\\\n\\\\nuniform sampler2D u_image;\\\\nvarying vec2 v_pos;\\\\nuniform vec2 u_dimension;\\\\nuniform float u_zoom;\\\\nuniform float u_maxzoom;\\\\n\\\\nfloat getElevation(vec2 coord, float bias) {\\\\n    // Convert encoded elevation value to meters\\\\n    vec4 data = texture2D(u_image, coord) * 255.0;\\\\n    return (data.r + data.g * 256.0 + data.b * 256.0 * 256.0) / 4.0;\\\\n}\\\\n\\\\nvoid main() {\\\\n    vec2 epsilon = 1.0 / u_dimension;\\\\n\\\\n    // queried pixels:\\\\n    // +-----------+\\\\n    // |   |   |   |\\\\n    // | a | b | c |\\\\n    // |   |   |   |\\\\n    // +-----------+\\\\n    // |   |   |   |\\\\n    // | d | e | f |\\\\n    // |   |   |   |\\\\n    // +-----------+\\\\n    // |   |   |   |\\\\n    // | g | h | i |\\\\n    // |   |   |   |\\\\n    // +-----------+\\\\n\\\\n    float a = getElevation(v_pos + vec2(-epsilon.x, -epsilon.y), 0.0);\\\\n    float b = getElevation(v_pos + vec2(0, -epsilon.y), 0.0);\\\\n    float c = getElevation(v_pos + vec2(epsilon.x, -epsilon.y), 0.0);\\\\n    float d = getElevation(v_pos + vec2(-epsilon.x, 0), 0.0);\\\\n    float e = getElevation(v_pos, 0.0);\\\\n    float f = getElevation(v_pos + vec2(epsilon.x, 0), 0.0);\\\\n    float g = getElevation(v_pos + vec2(-epsilon.x, epsilon.y), 0.0);\\\\n    float h = getElevation(v_pos + vec2(0, epsilon.y), 0.0);\\\\n    float i = getElevation(v_pos + vec2(epsilon.x, epsilon.y), 0.0);\\\\n\\\\n    // here we divide the x and y slopes by 8 * pixel size\\\\n    // where pixel size (aka meters/pixel) is:\\\\n    // circumference of the world / (pixels per tile * number of tiles)\\\\n    // which is equivalent to: 8 * 40075016.6855785 / (512 * pow(2, u_zoom))\\\\n    // which can be reduced to: pow(2, 19.25619978527 - u_zoom)\\\\n    // we want to vertically exaggerate the hillshading though, because otherwise\\\\n    // it is barely noticeable at low zooms. to do this, we multiply this by some\\\\n    // scale factor pow(2, (u_zoom - u_maxzoom) * a) where a is an arbitrary value\\\\n    // Here we use a=0.3 which works out to the expression below. see \\\\n    // nickidlugash's awesome breakdown for more info\\\\n    // https://github.com/mapbox/mapbox-gl-js/pull/5286#discussion_r148419556\\\\n    float exaggeration = u_zoom < 2.0 ? 0.4 : u_zoom < 4.5 ? 0.35 : 0.3;\\\\n\\\\n    vec2 deriv = vec2(\\\\n        (c + f + f + i) - (a + d + d + g),\\\\n        (g + h + h + i) - (a + b + b + c)\\\\n    ) /  pow(2.0, (u_zoom - u_maxzoom) * exaggeration + 19.2562 - u_zoom);\\\\n\\\\n    gl_FragColor = clamp(vec4(\\\\n        deriv.x / 2.0 + 0.5,\\\\n        deriv.y / 2.0 + 0.5,\\\\n        1.0,\\\\n        1.0), 0.0, 1.0);\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"uniform mat4 u_matrix;\\\\n\\\\nattribute vec2 a_pos;\\\\nattribute vec2 a_texture_pos;\\\\n\\\\nvarying vec2 v_pos;\\\\n\\\\nvoid main() {\\\\n    gl_Position = u_matrix * vec4(a_pos, 0, 1);\\\\n    v_pos = (a_texture_pos / 8192.0) / 2.0 + 0.25;\\\\n}\\\\n\\\"},hillshade:{fragmentSource:\\\"uniform sampler2D u_image;\\\\nvarying vec2 v_pos;\\\\n\\\\nuniform vec2 u_latrange;\\\\nuniform vec2 u_light;\\\\nuniform vec4 u_shadow;\\\\nuniform vec4 u_highlight;\\\\nuniform vec4 u_accent;\\\\n\\\\n#define PI 3.141592653589793\\\\n\\\\nvoid main() {\\\\n    vec4 pixel = texture2D(u_image, v_pos);\\\\n\\\\n    vec2 deriv = ((pixel.rg * 2.0) - 1.0);\\\\n\\\\n    // We divide the slope by a scale factor based on the cosin of the pixel's approximate latitude\\\\n    // to account for mercator projection distortion. see #4807 for details\\\\n    float scaleFactor = cos(radians((u_latrange[0] - u_latrange[1]) * (1.0 - v_pos.y) + u_latrange[1]));\\\\n    // We also multiply the slope by an arbitrary z-factor of 1.25\\\\n    float slope = atan(1.25 * length(deriv) / scaleFactor);\\\\n    float aspect = deriv.x != 0.0 ? atan(deriv.y, -deriv.x) : PI / 2.0 * (deriv.y > 0.0 ? 1.0 : -1.0);\\\\n\\\\n    float intensity = u_light.x;\\\\n    // We add PI to make this property match the global light object, which adds PI/2 to the light's azimuthal\\\\n    // position property to account for 0deg corresponding to north/the top of the viewport in the style spec\\\\n    // and the original shader was written to accept (-illuminationDirection - 90) as the azimuthal.\\\\n    float azimuth = u_light.y + PI;\\\\n\\\\n    // We scale the slope exponentially based on intensity, using a calculation similar to\\\\n    // the exponential interpolation function in the style spec:\\\\n    // https://github.com/mapbox/mapbox-gl-js/blob/master/src/style-spec/expression/definitions/interpolate.js#L217-L228\\\\n    // so that higher intensity values create more opaque hillshading.\\\\n    float base = 1.875 - intensity * 1.75;\\\\n    float maxValue = 0.5 * PI;\\\\n    float scaledSlope = intensity != 0.5 ? ((pow(base, slope) - 1.0) / (pow(base, maxValue) - 1.0)) * maxValue : slope;\\\\n\\\\n    // The accent color is calculated with the cosine of the slope while the shade color is calculated with the sine\\\\n    // so that the accent color's rate of change eases in while the shade color's eases out.\\\\n    float accent = cos(scaledSlope);\\\\n    // We multiply both the accent and shade color by a clamped intensity value\\\\n    // so that intensities >= 0.5 do not additionally affect the color values\\\\n    // while intensity values < 0.5 make the overall color more transparent.\\\\n    vec4 accent_color = (1.0 - accent) * u_accent * clamp(intensity * 2.0, 0.0, 1.0);\\\\n    float shade = abs(mod((aspect + azimuth) / PI + 0.5, 2.0) - 1.0);\\\\n    vec4 shade_color = mix(u_shadow, u_highlight, shade) * sin(scaledSlope) * clamp(intensity * 2.0, 0.0, 1.0);\\\\n    gl_FragColor = accent_color * (1.0 - shade_color.a) + shade_color;\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"uniform mat4 u_matrix;\\\\n\\\\nattribute vec2 a_pos;\\\\nattribute vec2 a_texture_pos;\\\\n\\\\nvarying vec2 v_pos;\\\\n\\\\nvoid main() {\\\\n    gl_Position = u_matrix * vec4(a_pos, 0, 1);\\\\n    v_pos = a_texture_pos / 8192.0;\\\\n}\\\\n\\\"},line:{fragmentSource:\\\"#pragma mapbox: define highp vec4 color\\\\n#pragma mapbox: define lowp float blur\\\\n#pragma mapbox: define lowp float opacity\\\\n\\\\nvarying vec2 v_width2;\\\\nvarying vec2 v_normal;\\\\nvarying float v_gamma_scale;\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize highp vec4 color\\\\n    #pragma mapbox: initialize lowp float blur\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n\\\\n    // Calculate the distance of the pixel from the line in pixels.\\\\n    float dist = length(v_normal) * v_width2.s;\\\\n\\\\n    // Calculate the antialiasing fade factor. This is either when fading in\\\\n    // the line in case of an offset line (v_width2.t) or when fading out\\\\n    // (v_width2.s)\\\\n    float blur2 = (blur + 1.0 / DEVICE_PIXEL_RATIO) * v_gamma_scale;\\\\n    float alpha = clamp(min(dist - (v_width2.t - blur2), v_width2.s - dist) / blur2, 0.0, 1.0);\\\\n\\\\n    gl_FragColor = color * (alpha * opacity);\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"\\\\n\\\\n// the distance over which the line edge fades out.\\\\n// Retina devices need a smaller distance to avoid aliasing.\\\\n#define ANTIALIASING 1.0 / DEVICE_PIXEL_RATIO / 2.0\\\\n\\\\n// floor(127 / 2) == 63.0\\\\n// the maximum allowed miter limit is 2.0 at the moment. the extrude normal is\\\\n// stored in a byte (-128..127). we scale regular normals up to length 63, but\\\\n// there are also \\\\\\\"special\\\\\\\" normals that have a bigger length (of up to 126 in\\\\n// this case).\\\\n// #define scale 63.0\\\\n#define scale 0.015873016\\\\n\\\\nattribute vec4 a_pos_normal;\\\\nattribute vec4 a_data;\\\\n\\\\nuniform mat4 u_matrix;\\\\nuniform mediump float u_ratio;\\\\nuniform vec2 u_gl_units_to_pixels;\\\\n\\\\nvarying vec2 v_normal;\\\\nvarying vec2 v_width2;\\\\nvarying float v_gamma_scale;\\\\nvarying highp float v_linesofar;\\\\n\\\\n#pragma mapbox: define highp vec4 color\\\\n#pragma mapbox: define lowp float blur\\\\n#pragma mapbox: define lowp float opacity\\\\n#pragma mapbox: define mediump float gapwidth\\\\n#pragma mapbox: define lowp float offset\\\\n#pragma mapbox: define mediump float width\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize highp vec4 color\\\\n    #pragma mapbox: initialize lowp float blur\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n    #pragma mapbox: initialize mediump float gapwidth\\\\n    #pragma mapbox: initialize lowp float offset\\\\n    #pragma mapbox: initialize mediump float width\\\\n\\\\n    vec2 a_extrude = a_data.xy - 128.0;\\\\n    float a_direction = mod(a_data.z, 4.0) - 1.0;\\\\n\\\\n    v_linesofar = (floor(a_data.z / 4.0) + a_data.w * 64.0) * 2.0;\\\\n\\\\n    vec2 pos = a_pos_normal.xy;\\\\n\\\\n    // x is 1 if it's a round cap, 0 otherwise\\\\n    // y is 1 if the normal points up, and -1 if it points down\\\\n    mediump vec2 normal = a_pos_normal.zw;\\\\n    v_normal = normal;\\\\n\\\\n    // these transformations used to be applied in the JS and native code bases.\\\\n    // moved them into the shader for clarity and simplicity.\\\\n    gapwidth = gapwidth / 2.0;\\\\n    float halfwidth = width / 2.0;\\\\n    offset = -1.0 * offset;\\\\n\\\\n    float inset = gapwidth + (gapwidth > 0.0 ? ANTIALIASING : 0.0);\\\\n    float outset = gapwidth + halfwidth * (gapwidth > 0.0 ? 2.0 : 1.0) + ANTIALIASING;\\\\n\\\\n    // Scale the extrusion vector down to a normal and then up by the line width\\\\n    // of this vertex.\\\\n    mediump vec2 dist = outset * a_extrude * scale;\\\\n\\\\n    // Calculate the offset when drawing a line that is to the side of the actual line.\\\\n    // We do this by creating a vector that points towards the extrude, but rotate\\\\n    // it when we're drawing round end points (a_direction = -1 or 1) since their\\\\n    // extrude vector points in another direction.\\\\n    mediump float u = 0.5 * a_direction;\\\\n    mediump float t = 1.0 - abs(u);\\\\n    mediump vec2 offset2 = offset * a_extrude * scale * normal.y * mat2(t, -u, u, t);\\\\n\\\\n    vec4 projected_extrude = u_matrix * vec4(dist / u_ratio, 0.0, 0.0);\\\\n    gl_Position = u_matrix * vec4(pos + offset2 / u_ratio, 0.0, 1.0) + projected_extrude;\\\\n\\\\n    // calculate how much the perspective view squishes or stretches the extrude\\\\n    float extrude_length_without_perspective = length(dist);\\\\n    float extrude_length_with_perspective = length(projected_extrude.xy / gl_Position.w * u_gl_units_to_pixels);\\\\n    v_gamma_scale = extrude_length_without_perspective / extrude_length_with_perspective;\\\\n\\\\n    v_width2 = vec2(outset, inset);\\\\n}\\\\n\\\"},lineGradient:{fragmentSource:\\\"\\\\n#pragma mapbox: define lowp float blur\\\\n#pragma mapbox: define lowp float opacity\\\\n\\\\nuniform sampler2D u_image;\\\\n\\\\nvarying vec2 v_width2;\\\\nvarying vec2 v_normal;\\\\nvarying float v_gamma_scale;\\\\nvarying highp float v_lineprogress;\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize lowp float blur\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n\\\\n    // Calculate the distance of the pixel from the line in pixels.\\\\n    float dist = length(v_normal) * v_width2.s;\\\\n\\\\n    // Calculate the antialiasing fade factor. This is either when fading in\\\\n    // the line in case of an offset line (v_width2.t) or when fading out\\\\n    // (v_width2.s)\\\\n    float blur2 = (blur + 1.0 / DEVICE_PIXEL_RATIO) * v_gamma_scale;\\\\n    float alpha = clamp(min(dist - (v_width2.t - blur2), v_width2.s - dist) / blur2, 0.0, 1.0);\\\\n\\\\n    // For gradient lines, v_lineprogress is the ratio along the entire line,\\\\n    // scaled to [0, 2^15), and the gradient ramp is stored in a texture.\\\\n    vec4 color = texture2D(u_image, vec2(v_lineprogress, 0.5));\\\\n\\\\n    gl_FragColor = color * (alpha * opacity);\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"\\\\n// the attribute conveying progress along a line is scaled to [0, 2^15)\\\\n#define MAX_LINE_DISTANCE 32767.0\\\\n\\\\n// the distance over which the line edge fades out.\\\\n// Retina devices need a smaller distance to avoid aliasing.\\\\n#define ANTIALIASING 1.0 / DEVICE_PIXEL_RATIO / 2.0\\\\n\\\\n// floor(127 / 2) == 63.0\\\\n// the maximum allowed miter limit is 2.0 at the moment. the extrude normal is\\\\n// stored in a byte (-128..127). we scale regular normals up to length 63, but\\\\n// there are also \\\\\\\"special\\\\\\\" normals that have a bigger length (of up to 126 in\\\\n// this case).\\\\n// #define scale 63.0\\\\n#define scale 0.015873016\\\\n\\\\nattribute vec4 a_pos_normal;\\\\nattribute vec4 a_data;\\\\n\\\\nuniform mat4 u_matrix;\\\\nuniform mediump float u_ratio;\\\\nuniform vec2 u_gl_units_to_pixels;\\\\n\\\\nvarying vec2 v_normal;\\\\nvarying vec2 v_width2;\\\\nvarying float v_gamma_scale;\\\\nvarying highp float v_lineprogress;\\\\n\\\\n#pragma mapbox: define lowp float blur\\\\n#pragma mapbox: define lowp float opacity\\\\n#pragma mapbox: define mediump float gapwidth\\\\n#pragma mapbox: define lowp float offset\\\\n#pragma mapbox: define mediump float width\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize lowp float blur\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n    #pragma mapbox: initialize mediump float gapwidth\\\\n    #pragma mapbox: initialize lowp float offset\\\\n    #pragma mapbox: initialize mediump float width\\\\n\\\\n    vec2 a_extrude = a_data.xy - 128.0;\\\\n    float a_direction = mod(a_data.z, 4.0) - 1.0;\\\\n\\\\n    v_lineprogress = (floor(a_data.z / 4.0) + a_data.w * 64.0) * 2.0 / MAX_LINE_DISTANCE;\\\\n\\\\n    vec2 pos = a_pos_normal.xy;\\\\n\\\\n    // x is 1 if it's a round cap, 0 otherwise\\\\n    // y is 1 if the normal points up, and -1 if it points down\\\\n    mediump vec2 normal = a_pos_normal.zw;\\\\n    v_normal = normal;\\\\n\\\\n    // these transformations used to be applied in the JS and native code bases.\\\\n    // moved them into the shader for clarity and simplicity.\\\\n    gapwidth = gapwidth / 2.0;\\\\n    float halfwidth = width / 2.0;\\\\n    offset = -1.0 * offset;\\\\n\\\\n    float inset = gapwidth + (gapwidth > 0.0 ? ANTIALIASING : 0.0);\\\\n    float outset = gapwidth + halfwidth * (gapwidth > 0.0 ? 2.0 : 1.0) + ANTIALIASING;\\\\n\\\\n    // Scale the extrusion vector down to a normal and then up by the line width\\\\n    // of this vertex.\\\\n    mediump vec2 dist = outset * a_extrude * scale;\\\\n\\\\n    // Calculate the offset when drawing a line that is to the side of the actual line.\\\\n    // We do this by creating a vector that points towards the extrude, but rotate\\\\n    // it when we're drawing round end points (a_direction = -1 or 1) since their\\\\n    // extrude vector points in another direction.\\\\n    mediump float u = 0.5 * a_direction;\\\\n    mediump float t = 1.0 - abs(u);\\\\n    mediump vec2 offset2 = offset * a_extrude * scale * normal.y * mat2(t, -u, u, t);\\\\n\\\\n    vec4 projected_extrude = u_matrix * vec4(dist / u_ratio, 0.0, 0.0);\\\\n    gl_Position = u_matrix * vec4(pos + offset2 / u_ratio, 0.0, 1.0) + projected_extrude;\\\\n\\\\n    // calculate how much the perspective view squishes or stretches the extrude\\\\n    float extrude_length_without_perspective = length(dist);\\\\n    float extrude_length_with_perspective = length(projected_extrude.xy / gl_Position.w * u_gl_units_to_pixels);\\\\n    v_gamma_scale = extrude_length_without_perspective / extrude_length_with_perspective;\\\\n\\\\n    v_width2 = vec2(outset, inset);\\\\n}\\\\n\\\"},linePattern:{fragmentSource:\\\"uniform vec2 u_pattern_size_a;\\\\nuniform vec2 u_pattern_size_b;\\\\nuniform vec2 u_pattern_tl_a;\\\\nuniform vec2 u_pattern_br_a;\\\\nuniform vec2 u_pattern_tl_b;\\\\nuniform vec2 u_pattern_br_b;\\\\nuniform vec2 u_texsize;\\\\nuniform float u_fade;\\\\n\\\\nuniform sampler2D u_image;\\\\n\\\\nvarying vec2 v_normal;\\\\nvarying vec2 v_width2;\\\\nvarying float v_linesofar;\\\\nvarying float v_gamma_scale;\\\\n\\\\n#pragma mapbox: define lowp float blur\\\\n#pragma mapbox: define lowp float opacity\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize lowp float blur\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n\\\\n    // Calculate the distance of the pixel from the line in pixels.\\\\n    float dist = length(v_normal) * v_width2.s;\\\\n\\\\n    // Calculate the antialiasing fade factor. This is either when fading in\\\\n    // the line in case of an offset line (v_width2.t) or when fading out\\\\n    // (v_width2.s)\\\\n    float blur2 = (blur + 1.0 / DEVICE_PIXEL_RATIO) * v_gamma_scale;\\\\n    float alpha = clamp(min(dist - (v_width2.t - blur2), v_width2.s - dist) / blur2, 0.0, 1.0);\\\\n\\\\n    float x_a = mod(v_linesofar / u_pattern_size_a.x, 1.0);\\\\n    float x_b = mod(v_linesofar / u_pattern_size_b.x, 1.0);\\\\n\\\\n    // v_normal.y is 0 at the midpoint of the line, -1 at the lower edge, 1 at the upper edge\\\\n    // we clamp the line width outset to be between 0 and half the pattern height plus padding (2.0)\\\\n    // to ensure we don't sample outside the designated symbol on the sprite sheet.\\\\n    // 0.5 is added to shift the component to be bounded between 0 and 1 for interpolation of\\\\n    // the texture coordinate\\\\n    float y_a = 0.5 + (v_normal.y * clamp(v_width2.s, 0.0, (u_pattern_size_a.y + 2.0) / 2.0) / u_pattern_size_a.y);\\\\n    float y_b = 0.5 + (v_normal.y * clamp(v_width2.s, 0.0, (u_pattern_size_b.y + 2.0) / 2.0) / u_pattern_size_b.y);\\\\n    vec2 pos_a = mix(u_pattern_tl_a / u_texsize, u_pattern_br_a / u_texsize, vec2(x_a, y_a));\\\\n    vec2 pos_b = mix(u_pattern_tl_b / u_texsize, u_pattern_br_b / u_texsize, vec2(x_b, y_b));\\\\n\\\\n    vec4 color = mix(texture2D(u_image, pos_a), texture2D(u_image, pos_b), u_fade);\\\\n\\\\n    gl_FragColor = color * alpha * opacity;\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"// floor(127 / 2) == 63.0\\\\n// the maximum allowed miter limit is 2.0 at the moment. the extrude normal is\\\\n// stored in a byte (-128..127). we scale regular normals up to length 63, but\\\\n// there are also \\\\\\\"special\\\\\\\" normals that have a bigger length (of up to 126 in\\\\n// this case).\\\\n// #define scale 63.0\\\\n#define scale 0.015873016\\\\n\\\\n// We scale the distance before adding it to the buffers so that we can store\\\\n// long distances for long segments. Use this value to unscale the distance.\\\\n#define LINE_DISTANCE_SCALE 2.0\\\\n\\\\n// the distance over which the line edge fades out.\\\\n// Retina devices need a smaller distance to avoid aliasing.\\\\n#define ANTIALIASING 1.0 / DEVICE_PIXEL_RATIO / 2.0\\\\n\\\\nattribute vec4 a_pos_normal;\\\\nattribute vec4 a_data;\\\\n\\\\nuniform mat4 u_matrix;\\\\nuniform mediump float u_ratio;\\\\nuniform vec2 u_gl_units_to_pixels;\\\\n\\\\nvarying vec2 v_normal;\\\\nvarying vec2 v_width2;\\\\nvarying float v_linesofar;\\\\nvarying float v_gamma_scale;\\\\n\\\\n#pragma mapbox: define lowp float blur\\\\n#pragma mapbox: define lowp float opacity\\\\n#pragma mapbox: define lowp float offset\\\\n#pragma mapbox: define mediump float gapwidth\\\\n#pragma mapbox: define mediump float width\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize lowp float blur\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n    #pragma mapbox: initialize lowp float offset\\\\n    #pragma mapbox: initialize mediump float gapwidth\\\\n    #pragma mapbox: initialize mediump float width\\\\n\\\\n    vec2 a_extrude = a_data.xy - 128.0;\\\\n    float a_direction = mod(a_data.z, 4.0) - 1.0;\\\\n    float a_linesofar = (floor(a_data.z / 4.0) + a_data.w * 64.0) * LINE_DISTANCE_SCALE;\\\\n\\\\n    vec2 pos = a_pos_normal.xy;\\\\n\\\\n    // x is 1 if it's a round cap, 0 otherwise\\\\n    // y is 1 if the normal points up, and -1 if it points down\\\\n    mediump vec2 normal = a_pos_normal.zw;\\\\n    v_normal = normal;\\\\n\\\\n    // these transformations used to be applied in the JS and native code bases.\\\\n    // moved them into the shader for clarity and simplicity.\\\\n    gapwidth = gapwidth / 2.0;\\\\n    float halfwidth = width / 2.0;\\\\n    offset = -1.0 * offset;\\\\n\\\\n    float inset = gapwidth + (gapwidth > 0.0 ? ANTIALIASING : 0.0);\\\\n    float outset = gapwidth + halfwidth * (gapwidth > 0.0 ? 2.0 : 1.0) + ANTIALIASING;\\\\n\\\\n    // Scale the extrusion vector down to a normal and then up by the line width\\\\n    // of this vertex.\\\\n    mediump vec2 dist = outset * a_extrude * scale;\\\\n\\\\n    // Calculate the offset when drawing a line that is to the side of the actual line.\\\\n    // We do this by creating a vector that points towards the extrude, but rotate\\\\n    // it when we're drawing round end points (a_direction = -1 or 1) since their\\\\n    // extrude vector points in another direction.\\\\n    mediump float u = 0.5 * a_direction;\\\\n    mediump float t = 1.0 - abs(u);\\\\n    mediump vec2 offset2 = offset * a_extrude * scale * normal.y * mat2(t, -u, u, t);\\\\n\\\\n    vec4 projected_extrude = u_matrix * vec4(dist / u_ratio, 0.0, 0.0);\\\\n    gl_Position = u_matrix * vec4(pos + offset2 / u_ratio, 0.0, 1.0) + projected_extrude;\\\\n\\\\n    // calculate how much the perspective view squishes or stretches the extrude\\\\n    float extrude_length_without_perspective = length(dist);\\\\n    float extrude_length_with_perspective = length(projected_extrude.xy / gl_Position.w * u_gl_units_to_pixels);\\\\n    v_gamma_scale = extrude_length_without_perspective / extrude_length_with_perspective;\\\\n\\\\n    v_linesofar = a_linesofar;\\\\n    v_width2 = vec2(outset, inset);\\\\n}\\\\n\\\"},lineSDF:{fragmentSource:\\\"\\\\nuniform sampler2D u_image;\\\\nuniform float u_sdfgamma;\\\\nuniform float u_mix;\\\\n\\\\nvarying vec2 v_normal;\\\\nvarying vec2 v_width2;\\\\nvarying vec2 v_tex_a;\\\\nvarying vec2 v_tex_b;\\\\nvarying float v_gamma_scale;\\\\n\\\\n#pragma mapbox: define highp vec4 color\\\\n#pragma mapbox: define lowp float blur\\\\n#pragma mapbox: define lowp float opacity\\\\n#pragma mapbox: define mediump float width\\\\n#pragma mapbox: define lowp float floorwidth\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize highp vec4 color\\\\n    #pragma mapbox: initialize lowp float blur\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n    #pragma mapbox: initialize mediump float width\\\\n    #pragma mapbox: initialize lowp float floorwidth\\\\n\\\\n    // Calculate the distance of the pixel from the line in pixels.\\\\n    float dist = length(v_normal) * v_width2.s;\\\\n\\\\n    // Calculate the antialiasing fade factor. This is either when fading in\\\\n    // the line in case of an offset line (v_width2.t) or when fading out\\\\n    // (v_width2.s)\\\\n    float blur2 = (blur + 1.0 / DEVICE_PIXEL_RATIO) * v_gamma_scale;\\\\n    float alpha = clamp(min(dist - (v_width2.t - blur2), v_width2.s - dist) / blur2, 0.0, 1.0);\\\\n\\\\n    float sdfdist_a = texture2D(u_image, v_tex_a).a;\\\\n    float sdfdist_b = texture2D(u_image, v_tex_b).a;\\\\n    float sdfdist = mix(sdfdist_a, sdfdist_b, u_mix);\\\\n    alpha *= smoothstep(0.5 - u_sdfgamma / floorwidth, 0.5 + u_sdfgamma / floorwidth, sdfdist);\\\\n\\\\n    gl_FragColor = color * (alpha * opacity);\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"// floor(127 / 2) == 63.0\\\\n// the maximum allowed miter limit is 2.0 at the moment. the extrude normal is\\\\n// stored in a byte (-128..127). we scale regular normals up to length 63, but\\\\n// there are also \\\\\\\"special\\\\\\\" normals that have a bigger length (of up to 126 in\\\\n// this case).\\\\n// #define scale 63.0\\\\n#define scale 0.015873016\\\\n\\\\n// We scale the distance before adding it to the buffers so that we can store\\\\n// long distances for long segments. Use this value to unscale the distance.\\\\n#define LINE_DISTANCE_SCALE 2.0\\\\n\\\\n// the distance over which the line edge fades out.\\\\n// Retina devices need a smaller distance to avoid aliasing.\\\\n#define ANTIALIASING 1.0 / DEVICE_PIXEL_RATIO / 2.0\\\\n\\\\nattribute vec4 a_pos_normal;\\\\nattribute vec4 a_data;\\\\n\\\\nuniform mat4 u_matrix;\\\\nuniform mediump float u_ratio;\\\\nuniform vec2 u_patternscale_a;\\\\nuniform float u_tex_y_a;\\\\nuniform vec2 u_patternscale_b;\\\\nuniform float u_tex_y_b;\\\\nuniform vec2 u_gl_units_to_pixels;\\\\n\\\\nvarying vec2 v_normal;\\\\nvarying vec2 v_width2;\\\\nvarying vec2 v_tex_a;\\\\nvarying vec2 v_tex_b;\\\\nvarying float v_gamma_scale;\\\\n\\\\n#pragma mapbox: define highp vec4 color\\\\n#pragma mapbox: define lowp float blur\\\\n#pragma mapbox: define lowp float opacity\\\\n#pragma mapbox: define mediump float gapwidth\\\\n#pragma mapbox: define lowp float offset\\\\n#pragma mapbox: define mediump float width\\\\n#pragma mapbox: define lowp float floorwidth\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize highp vec4 color\\\\n    #pragma mapbox: initialize lowp float blur\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n    #pragma mapbox: initialize mediump float gapwidth\\\\n    #pragma mapbox: initialize lowp float offset\\\\n    #pragma mapbox: initialize mediump float width\\\\n    #pragma mapbox: initialize lowp float floorwidth\\\\n\\\\n    vec2 a_extrude = a_data.xy - 128.0;\\\\n    float a_direction = mod(a_data.z, 4.0) - 1.0;\\\\n    float a_linesofar = (floor(a_data.z / 4.0) + a_data.w * 64.0) * LINE_DISTANCE_SCALE;\\\\n\\\\n    vec2 pos = a_pos_normal.xy;\\\\n\\\\n    // x is 1 if it's a round cap, 0 otherwise\\\\n    // y is 1 if the normal points up, and -1 if it points down\\\\n    mediump vec2 normal = a_pos_normal.zw;\\\\n    v_normal = normal;\\\\n\\\\n    // these transformations used to be applied in the JS and native code bases.\\\\n    // moved them into the shader for clarity and simplicity.\\\\n    gapwidth = gapwidth / 2.0;\\\\n    float halfwidth = width / 2.0;\\\\n    offset = -1.0 * offset;\\\\n\\\\n    float inset = gapwidth + (gapwidth > 0.0 ? ANTIALIASING : 0.0);\\\\n    float outset = gapwidth + halfwidth * (gapwidth > 0.0 ? 2.0 : 1.0) + ANTIALIASING;\\\\n\\\\n    // Scale the extrusion vector down to a normal and then up by the line width\\\\n    // of this vertex.\\\\n    mediump vec2 dist =outset * a_extrude * scale;\\\\n\\\\n    // Calculate the offset when drawing a line that is to the side of the actual line.\\\\n    // We do this by creating a vector that points towards the extrude, but rotate\\\\n    // it when we're drawing round end points (a_direction = -1 or 1) since their\\\\n    // extrude vector points in another direction.\\\\n    mediump float u = 0.5 * a_direction;\\\\n    mediump float t = 1.0 - abs(u);\\\\n    mediump vec2 offset2 = offset * a_extrude * scale * normal.y * mat2(t, -u, u, t);\\\\n\\\\n    vec4 projected_extrude = u_matrix * vec4(dist / u_ratio, 0.0, 0.0);\\\\n    gl_Position = u_matrix * vec4(pos + offset2 / u_ratio, 0.0, 1.0) + projected_extrude;\\\\n\\\\n    // calculate how much the perspective view squishes or stretches the extrude\\\\n    float extrude_length_without_perspective = length(dist);\\\\n    float extrude_length_with_perspective = length(projected_extrude.xy / gl_Position.w * u_gl_units_to_pixels);\\\\n    v_gamma_scale = extrude_length_without_perspective / extrude_length_with_perspective;\\\\n\\\\n    v_tex_a = vec2(a_linesofar * u_patternscale_a.x / floorwidth, normal.y * u_patternscale_a.y + u_tex_y_a);\\\\n    v_tex_b = vec2(a_linesofar * u_patternscale_b.x / floorwidth, normal.y * u_patternscale_b.y + u_tex_y_b);\\\\n\\\\n    v_width2 = vec2(outset, inset);\\\\n}\\\\n\\\"},raster:{fragmentSource:\\\"uniform float u_fade_t;\\\\nuniform float u_opacity;\\\\nuniform sampler2D u_image0;\\\\nuniform sampler2D u_image1;\\\\nvarying vec2 v_pos0;\\\\nvarying vec2 v_pos1;\\\\n\\\\nuniform float u_brightness_low;\\\\nuniform float u_brightness_high;\\\\n\\\\nuniform float u_saturation_factor;\\\\nuniform float u_contrast_factor;\\\\nuniform vec3 u_spin_weights;\\\\n\\\\nvoid main() {\\\\n\\\\n    // read and cross-fade colors from the main and parent tiles\\\\n    vec4 color0 = texture2D(u_image0, v_pos0);\\\\n    vec4 color1 = texture2D(u_image1, v_pos1);\\\\n    if (color0.a > 0.0) {\\\\n        color0.rgb = color0.rgb / color0.a;\\\\n    }\\\\n    if (color1.a > 0.0) {\\\\n        color1.rgb = color1.rgb / color1.a;\\\\n    }\\\\n    vec4 color = mix(color0, color1, u_fade_t);\\\\n    color.a *= u_opacity;\\\\n    vec3 rgb = color.rgb;\\\\n\\\\n    // spin\\\\n    rgb = vec3(\\\\n        dot(rgb, u_spin_weights.xyz),\\\\n        dot(rgb, u_spin_weights.zxy),\\\\n        dot(rgb, u_spin_weights.yzx));\\\\n\\\\n    // saturation\\\\n    float average = (color.r + color.g + color.b) / 3.0;\\\\n    rgb += (average - rgb) * u_saturation_factor;\\\\n\\\\n    // contrast\\\\n    rgb = (rgb - 0.5) * u_contrast_factor + 0.5;\\\\n\\\\n    // brightness\\\\n    vec3 u_high_vec = vec3(u_brightness_low, u_brightness_low, u_brightness_low);\\\\n    vec3 u_low_vec = vec3(u_brightness_high, u_brightness_high, u_brightness_high);\\\\n\\\\n    gl_FragColor = vec4(mix(u_high_vec, u_low_vec, rgb) * color.a, color.a);\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"uniform mat4 u_matrix;\\\\nuniform vec2 u_tl_parent;\\\\nuniform float u_scale_parent;\\\\nuniform float u_buffer_scale;\\\\n\\\\nattribute vec2 a_pos;\\\\nattribute vec2 a_texture_pos;\\\\n\\\\nvarying vec2 v_pos0;\\\\nvarying vec2 v_pos1;\\\\n\\\\nvoid main() {\\\\n    gl_Position = u_matrix * vec4(a_pos, 0, 1);\\\\n    // We are using Int16 for texture position coordinates to give us enough precision for\\\\n    // fractional coordinates. We use 8192 to scale the texture coordinates in the buffer\\\\n    // as an arbitrarily high number to preserve adequate precision when rendering.\\\\n    // This is also the same value as the EXTENT we are using for our tile buffer pos coordinates,\\\\n    // so math for modifying either is consistent.\\\\n    v_pos0 = (((a_texture_pos / 8192.0) - 0.5) / u_buffer_scale ) + 0.5;\\\\n    v_pos1 = (v_pos0 * u_scale_parent) + u_tl_parent;\\\\n}\\\\n\\\"},symbolIcon:{fragmentSource:\\\"uniform sampler2D u_texture;\\\\n\\\\n#pragma mapbox: define lowp float opacity\\\\n\\\\nvarying vec2 v_tex;\\\\nvarying float v_fade_opacity;\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n\\\\n    lowp float alpha = opacity * v_fade_opacity;\\\\n    gl_FragColor = texture2D(u_texture, v_tex) * alpha;\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"const float PI = 3.141592653589793;\\\\n\\\\nattribute vec4 a_pos_offset;\\\\nattribute vec4 a_data;\\\\nattribute vec3 a_projected_pos;\\\\nattribute float a_fade_opacity;\\\\n\\\\nuniform bool u_is_size_zoom_constant;\\\\nuniform bool u_is_size_feature_constant;\\\\nuniform highp float u_size_t; // used to interpolate between zoom stops when size is a composite function\\\\nuniform highp float u_size; // used when size is both zoom and feature constant\\\\nuniform highp float u_camera_to_center_distance;\\\\nuniform highp float u_pitch;\\\\nuniform bool u_rotate_symbol;\\\\nuniform highp float u_aspect_ratio;\\\\nuniform float u_fade_change;\\\\n\\\\n#pragma mapbox: define lowp float opacity\\\\n\\\\nuniform mat4 u_matrix;\\\\nuniform mat4 u_label_plane_matrix;\\\\nuniform mat4 u_gl_coord_matrix;\\\\n\\\\nuniform bool u_is_text;\\\\nuniform bool u_pitch_with_map;\\\\n\\\\nuniform vec2 u_texsize;\\\\n\\\\nvarying vec2 v_tex;\\\\nvarying float v_fade_opacity;\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n\\\\n    vec2 a_pos = a_pos_offset.xy;\\\\n    vec2 a_offset = a_pos_offset.zw;\\\\n\\\\n    vec2 a_tex = a_data.xy;\\\\n    vec2 a_size = a_data.zw;\\\\n\\\\n    highp float segment_angle = -a_projected_pos[2];\\\\n\\\\n    float size;\\\\n    if (!u_is_size_zoom_constant && !u_is_size_feature_constant) {\\\\n        size = mix(a_size[0], a_size[1], u_size_t) / 10.0;\\\\n    } else if (u_is_size_zoom_constant && !u_is_size_feature_constant) {\\\\n        size = a_size[0] / 10.0;\\\\n    } else if (!u_is_size_zoom_constant && u_is_size_feature_constant) {\\\\n        size = u_size;\\\\n    } else {\\\\n        size = u_size;\\\\n    }\\\\n\\\\n    vec4 projectedPoint = u_matrix * vec4(a_pos, 0, 1);\\\\n    highp float camera_to_anchor_distance = projectedPoint.w;\\\\n    // See comments in symbol_sdf.vertex\\\\n    highp float distance_ratio = u_pitch_with_map ?\\\\n        camera_to_anchor_distance / u_camera_to_center_distance :\\\\n        u_camera_to_center_distance / camera_to_anchor_distance;\\\\n    highp float perspective_ratio = clamp(\\\\n            0.5 + 0.5 * distance_ratio,\\\\n            0.0, // Prevents oversized near-field symbols in pitched/overzoomed tiles\\\\n            4.0);\\\\n\\\\n    size *= perspective_ratio;\\\\n\\\\n    float fontScale = u_is_text ? size / 24.0 : size;\\\\n\\\\n    highp float symbol_rotation = 0.0;\\\\n    if (u_rotate_symbol) {\\\\n        // See comments in symbol_sdf.vertex\\\\n        vec4 offsetProjectedPoint = u_matrix * vec4(a_pos + vec2(1, 0), 0, 1);\\\\n\\\\n        vec2 a = projectedPoint.xy / projectedPoint.w;\\\\n        vec2 b = offsetProjectedPoint.xy / offsetProjectedPoint.w;\\\\n\\\\n        symbol_rotation = atan((b.y - a.y) / u_aspect_ratio, b.x - a.x);\\\\n    }\\\\n\\\\n    highp float angle_sin = sin(segment_angle + symbol_rotation);\\\\n    highp float angle_cos = cos(segment_angle + symbol_rotation);\\\\n    mat2 rotation_matrix = mat2(angle_cos, -1.0 * angle_sin, angle_sin, angle_cos);\\\\n\\\\n    vec4 projected_pos = u_label_plane_matrix * vec4(a_projected_pos.xy, 0.0, 1.0);\\\\n    gl_Position = u_gl_coord_matrix * vec4(projected_pos.xy / projected_pos.w + rotation_matrix * (a_offset / 32.0 * fontScale), 0.0, 1.0);\\\\n\\\\n    v_tex = a_tex / u_texsize;\\\\n    vec2 fade_opacity = unpack_opacity(a_fade_opacity);\\\\n    float fade_change = fade_opacity[1] > 0.5 ? u_fade_change : -u_fade_change;\\\\n    v_fade_opacity = max(0.0, min(1.0, fade_opacity[0] + fade_change));\\\\n}\\\\n\\\"},symbolSDF:{fragmentSource:\\\"#define SDF_PX 8.0\\\\n#define EDGE_GAMMA 0.105/DEVICE_PIXEL_RATIO\\\\n\\\\nuniform bool u_is_halo;\\\\n#pragma mapbox: define highp vec4 fill_color\\\\n#pragma mapbox: define highp vec4 halo_color\\\\n#pragma mapbox: define lowp float opacity\\\\n#pragma mapbox: define lowp float halo_width\\\\n#pragma mapbox: define lowp float halo_blur\\\\n\\\\nuniform sampler2D u_texture;\\\\nuniform highp float u_gamma_scale;\\\\nuniform bool u_is_text;\\\\n\\\\nvarying vec2 v_data0;\\\\nvarying vec3 v_data1;\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize highp vec4 fill_color\\\\n    #pragma mapbox: initialize highp vec4 halo_color\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n    #pragma mapbox: initialize lowp float halo_width\\\\n    #pragma mapbox: initialize lowp float halo_blur\\\\n\\\\n    vec2 tex = v_data0.xy;\\\\n    float gamma_scale = v_data1.x;\\\\n    float size = v_data1.y;\\\\n    float fade_opacity = v_data1[2];\\\\n\\\\n    float fontScale = u_is_text ? size / 24.0 : size;\\\\n\\\\n    lowp vec4 color = fill_color;\\\\n    highp float gamma = EDGE_GAMMA / (fontScale * u_gamma_scale);\\\\n    lowp float buff = (256.0 - 64.0) / 256.0;\\\\n    if (u_is_halo) {\\\\n        color = halo_color;\\\\n        gamma = (halo_blur * 1.19 / SDF_PX + EDGE_GAMMA) / (fontScale * u_gamma_scale);\\\\n        buff = (6.0 - halo_width / fontScale) / SDF_PX;\\\\n    }\\\\n\\\\n    lowp float dist = texture2D(u_texture, tex).a;\\\\n    highp float gamma_scaled = gamma * gamma_scale;\\\\n    highp float alpha = smoothstep(buff - gamma_scaled, buff + gamma_scaled, dist);\\\\n\\\\n    gl_FragColor = color * (alpha * opacity * fade_opacity);\\\\n\\\\n#ifdef OVERDRAW_INSPECTOR\\\\n    gl_FragColor = vec4(1.0);\\\\n#endif\\\\n}\\\\n\\\",vertexSource:\\\"const float PI = 3.141592653589793;\\\\n\\\\nattribute vec4 a_pos_offset;\\\\nattribute vec4 a_data;\\\\nattribute vec3 a_projected_pos;\\\\nattribute float a_fade_opacity;\\\\n\\\\n// contents of a_size vary based on the type of property value\\\\n// used for {text,icon}-size.\\\\n// For constants, a_size is disabled.\\\\n// For source functions, we bind only one value per vertex: the value of {text,icon}-size evaluated for the current feature.\\\\n// For composite functions:\\\\n// [ text-size(lowerZoomStop, feature),\\\\n//   text-size(upperZoomStop, feature) ]\\\\nuniform bool u_is_size_zoom_constant;\\\\nuniform bool u_is_size_feature_constant;\\\\nuniform highp float u_size_t; // used to interpolate between zoom stops when size is a composite function\\\\nuniform highp float u_size; // used when size is both zoom and feature constant\\\\n\\\\n#pragma mapbox: define highp vec4 fill_color\\\\n#pragma mapbox: define highp vec4 halo_color\\\\n#pragma mapbox: define lowp float opacity\\\\n#pragma mapbox: define lowp float halo_width\\\\n#pragma mapbox: define lowp float halo_blur\\\\n\\\\nuniform mat4 u_matrix;\\\\nuniform mat4 u_label_plane_matrix;\\\\nuniform mat4 u_gl_coord_matrix;\\\\n\\\\nuniform bool u_is_text;\\\\nuniform bool u_pitch_with_map;\\\\nuniform highp float u_pitch;\\\\nuniform bool u_rotate_symbol;\\\\nuniform highp float u_aspect_ratio;\\\\nuniform highp float u_camera_to_center_distance;\\\\nuniform float u_fade_change;\\\\n\\\\nuniform vec2 u_texsize;\\\\n\\\\nvarying vec2 v_data0;\\\\nvarying vec3 v_data1;\\\\n\\\\nvoid main() {\\\\n    #pragma mapbox: initialize highp vec4 fill_color\\\\n    #pragma mapbox: initialize highp vec4 halo_color\\\\n    #pragma mapbox: initialize lowp float opacity\\\\n    #pragma mapbox: initialize lowp float halo_width\\\\n    #pragma mapbox: initialize lowp float halo_blur\\\\n\\\\n    vec2 a_pos = a_pos_offset.xy;\\\\n    vec2 a_offset = a_pos_offset.zw;\\\\n\\\\n    vec2 a_tex = a_data.xy;\\\\n    vec2 a_size = a_data.zw;\\\\n\\\\n    highp float segment_angle = -a_projected_pos[2];\\\\n    float size;\\\\n\\\\n    if (!u_is_size_zoom_constant && !u_is_size_feature_constant) {\\\\n        size = mix(a_size[0], a_size[1], u_size_t) / 10.0;\\\\n    } else if (u_is_size_zoom_constant && !u_is_size_feature_constant) {\\\\n        size = a_size[0] / 10.0;\\\\n    } else if (!u_is_size_zoom_constant && u_is_size_feature_constant) {\\\\n        size = u_size;\\\\n    } else {\\\\n        size = u_size;\\\\n    }\\\\n\\\\n    vec4 projectedPoint = u_matrix * vec4(a_pos, 0, 1);\\\\n    highp float camera_to_anchor_distance = projectedPoint.w;\\\\n    // If the label is pitched with the map, layout is done in pitched space,\\\\n    // which makes labels in the distance smaller relative to viewport space.\\\\n    // We counteract part of that effect by multiplying by the perspective ratio.\\\\n    // If the label isn't pitched with the map, we do layout in viewport space,\\\\n    // which makes labels in the distance larger relative to the features around\\\\n    // them. We counteract part of that effect by dividing by the perspective ratio.\\\\n    highp float distance_ratio = u_pitch_with_map ?\\\\n        camera_to_anchor_distance / u_camera_to_center_distance :\\\\n        u_camera_to_center_distance / camera_to_anchor_distance;\\\\n    highp float perspective_ratio = clamp(\\\\n        0.5 + 0.5 * distance_ratio,\\\\n        0.0, // Prevents oversized near-field symbols in pitched/overzoomed tiles\\\\n        4.0);\\\\n\\\\n    size *= perspective_ratio;\\\\n\\\\n    float fontScale = u_is_text ? size / 24.0 : size;\\\\n\\\\n    highp float symbol_rotation = 0.0;\\\\n    if (u_rotate_symbol) {\\\\n        // Point labels with 'rotation-alignment: map' are horizontal with respect to tile units\\\\n        // To figure out that angle in projected space, we draw a short horizontal line in tile\\\\n        // space, project it, and measure its angle in projected space.\\\\n        vec4 offsetProjectedPoint = u_matrix * vec4(a_pos + vec2(1, 0), 0, 1);\\\\n\\\\n        vec2 a = projectedPoint.xy / projectedPoint.w;\\\\n        vec2 b = offsetProjectedPoint.xy / offsetProjectedPoint.w;\\\\n\\\\n        symbol_rotation = atan((b.y - a.y) / u_aspect_ratio, b.x - a.x);\\\\n    }\\\\n\\\\n    highp float angle_sin = sin(segment_angle + symbol_rotation);\\\\n    highp float angle_cos = cos(segment_angle + symbol_rotation);\\\\n    mat2 rotation_matrix = mat2(angle_cos, -1.0 * angle_sin, angle_sin, angle_cos);\\\\n\\\\n    vec4 projected_pos = u_label_plane_matrix * vec4(a_projected_pos.xy, 0.0, 1.0);\\\\n    gl_Position = u_gl_coord_matrix * vec4(projected_pos.xy / projected_pos.w + rotation_matrix * (a_offset / 32.0 * fontScale), 0.0, 1.0);\\\\n    float gamma_scale = gl_Position.w;\\\\n\\\\n    vec2 tex = a_tex / u_texsize;\\\\n    vec2 fade_opacity = unpack_opacity(a_fade_opacity);\\\\n    float fade_change = fade_opacity[1] > 0.5 ? u_fade_change : -u_fade_change;\\\\n    float interpolated_fade_opacity = max(0.0, min(1.0, fade_opacity[0] + fade_change));\\\\n\\\\n    v_data0 = vec2(tex.x, tex.y);\\\\n    v_data1 = vec3(gamma_scale, size, interpolated_fade_opacity);\\\\n}\\\\n\\\"}},tr=/#pragma mapbox: ([\\\\w]+) ([\\\\w]+) ([\\\\w]+) ([\\\\w]+)/g,er=function(t){var e=Qe[t],r={};e.fragmentSource=e.fragmentSource.replace(tr,function(t,e,n,i,a){return r[a]=!0,\\\"define\\\"===e?\\\"\\\\n#ifndef HAS_UNIFORM_u_\\\"+a+\\\"\\\\nvarying \\\"+n+\\\" \\\"+i+\\\" \\\"+a+\\\";\\\\n#else\\\\nuniform \\\"+n+\\\" \\\"+i+\\\" u_\\\"+a+\\\";\\\\n#endif\\\\n\\\":\\\"\\\\n#ifdef HAS_UNIFORM_u_\\\"+a+\\\"\\\\n    \\\"+n+\\\" \\\"+i+\\\" \\\"+a+\\\" = u_\\\"+a+\\\";\\\\n#endif\\\\n\\\"}),e.vertexSource=e.vertexSource.replace(tr,function(t,e,n,i,a){var o=\\\"float\\\"===i?\\\"vec2\\\":\\\"vec4\\\";return r[a]?\\\"define\\\"===e?\\\"\\\\n#ifndef HAS_UNIFORM_u_\\\"+a+\\\"\\\\nuniform lowp float a_\\\"+a+\\\"_t;\\\\nattribute \\\"+n+\\\" \\\"+o+\\\" a_\\\"+a+\\\";\\\\nvarying \\\"+n+\\\" \\\"+i+\\\" \\\"+a+\\\";\\\\n#else\\\\nuniform \\\"+n+\\\" \\\"+i+\\\" u_\\\"+a+\\\";\\\\n#endif\\\\n\\\":\\\"\\\\n#ifndef HAS_UNIFORM_u_\\\"+a+\\\"\\\\n    \\\"+a+\\\" = unpack_mix_\\\"+o+\\\"(a_\\\"+a+\\\", a_\\\"+a+\\\"_t);\\\\n#else\\\\n    \\\"+n+\\\" \\\"+i+\\\" \\\"+a+\\\" = u_\\\"+a+\\\";\\\\n#endif\\\\n\\\":\\\"define\\\"===e?\\\"\\\\n#ifndef HAS_UNIFORM_u_\\\"+a+\\\"\\\\nuniform lowp float a_\\\"+a+\\\"_t;\\\\nattribute \\\"+n+\\\" \\\"+o+\\\" a_\\\"+a+\\\";\\\\n#else\\\\nuniform \\\"+n+\\\" \\\"+i+\\\" u_\\\"+a+\\\";\\\\n#endif\\\\n\\\":\\\"\\\\n#ifndef HAS_UNIFORM_u_\\\"+a+\\\"\\\\n    \\\"+n+\\\" \\\"+i+\\\" \\\"+a+\\\" = unpack_mix_\\\"+o+\\\"(a_\\\"+a+\\\", a_\\\"+a+\\\"_t);\\\\n#else\\\\n    \\\"+n+\\\" \\\"+i+\\\" \\\"+a+\\\" = u_\\\"+a+\\\";\\\\n#endif\\\\n\\\"})};for(var rr in Qe)er(rr);var nr=Qe,ir=function(t,e,r,n){var i=t.gl;this.program=i.createProgram();var o=r.defines().concat(\\\"#define DEVICE_PIXEL_RATIO \\\"+a.devicePixelRatio.toFixed(1));n&&o.push(\\\"#define OVERDRAW_INSPECTOR;\\\");var s=o.concat(nr.prelude.fragmentSource,e.fragmentSource).join(\\\"\\\\n\\\"),l=o.concat(nr.prelude.vertexSource,e.vertexSource).join(\\\"\\\\n\\\"),c=i.createShader(i.FRAGMENT_SHADER);i.shaderSource(c,s),i.compileShader(c),i.attachShader(this.program,c);var u=i.createShader(i.VERTEX_SHADER);i.shaderSource(u,l),i.compileShader(u),i.attachShader(this.program,u);for(var f=r.layoutAttributes||[],h=0;h<f.length;h++)i.bindAttribLocation(this.program,h,f[h].name);i.linkProgram(this.program),this.numAttributes=i.getProgramParameter(this.program,i.ACTIVE_ATTRIBUTES),this.attributes={},this.uniforms={};for(var p=0;p<this.numAttributes;p++){var d=i.getActiveAttrib(this.program,p);d&&(this.attributes[d.name]=i.getAttribLocation(this.program,d.name))}for(var g=i.getProgramParameter(this.program,i.ACTIVE_UNIFORMS),v=0;v<g;v++){var m=i.getActiveUniform(this.program,v);m&&(this.uniforms[m.name]=i.getUniformLocation(this.program,m.name))}};function ar(e,r,n,i,a){for(var o=0;o<n.length;o++){var s=n[o];if(i.isLessThan(s.tileID))break;if(r.key===s.tileID.key)return;if(s.tileID.isChildOf(r)){for(var l=r.children(1/0),c=0;c<l.length;c++)ar(e,l[c],n.slice(o),i,a);return}}var u=r.overscaledZ-e.overscaledZ,f=new t.CanonicalTileID(u,r.canonical.x-(e.canonical.x<<u),r.canonical.y-(e.canonical.y<<u));a[f.key]=a[f.key]||f}function or(t,e,r,n,i){var a=t.context,o=a.gl,s=i?t.useProgram(\\\"collisionCircle\\\"):t.useProgram(\\\"collisionBox\\\");a.setDepthMode(Ht.disabled),a.setStencilMode(qt.disabled),a.setColorMode(t.colorModeForRenderPass());for(var l=0;l<n.length;l++){var c=n[l],u=e.getTile(c),f=u.getBucket(r);if(f){var h=i?f.collisionCircle:f.collisionBox;if(h){o.uniformMatrix4fv(s.uniforms.u_matrix,!1,c.posMatrix),i||a.lineWidth.set(1),o.uniform1f(s.uniforms.u_camera_to_center_distance,t.transform.cameraToCenterDistance);var p=Me(u,1,t.transform.zoom),d=Math.pow(2,t.transform.zoom-u.tileID.overscaledZ);o.uniform1f(s.uniforms.u_pixels_to_tile_units,p),o.uniform2f(s.uniforms.u_extrude_scale,t.transform.pixelsToGLUnits[0]/(p*d),t.transform.pixelsToGLUnits[1]/(p*d)),o.uniform1f(s.uniforms.u_overscale_factor,u.tileID.overscaleFactor()),s.draw(a,i?o.TRIANGLES:o.LINES,r.id,h.layoutVertexBuffer,h.indexBuffer,h.segments,null,h.collisionVertexBuffer,null)}}}}ir.prototype.draw=function(t,e,r,n,i,a,o,s,l){for(var c,u=t.gl,f=(c={},c[u.LINES]=2,c[u.TRIANGLES]=3,c)[e],h=0,p=a.get();h<p.length;h+=1){var d=p[h],g=d.vaos||(d.vaos={});(g[r]||(g[r]=new Q)).bind(t,this,n,o?o.getPaintVertexBuffers():[],i,d.vertexOffset,s,l),u.drawElements(e,d.primitiveLength*f,u.UNSIGNED_SHORT,d.primitiveOffset*f*2)}};var sr=t.mat4.identity(new Float32Array(16)),lr=t.default$19.layout;function cr(t,e,r,n,i,a,o,s,l,c){var u,f=t.context,h=f.gl,p=t.transform,d=\\\"map\\\"===s,g=\\\"map\\\"===l,v=d&&\\\"line\\\"===r.layout.get(\\\"symbol-placement\\\"),m=d&&!g&&!v,y=g;f.setDepthMode(y?t.depthModeForSublayer(0,Ht.ReadOnly):Ht.disabled);for(var x=0,b=n;x<b.length;x+=1){var _=b[x],w=e.getTile(_),k=w.getBucket(r);if(k){var T=i?k.text:k.icon;if(T&&T.segments.get().length){var A=T.programConfigurations.get(r.id),M=i||k.sdfIcons,S=i?k.textSizeData:k.iconSizeData;if(u||(u=t.useProgram(M?\\\"symbolSDF\\\":\\\"symbolIcon\\\",A),A.setUniforms(t.context,u,r.paint,{zoom:t.transform.zoom}),ur(u,t,r,i,m,g,S)),f.activeTexture.set(h.TEXTURE0),h.uniform1i(u.uniforms.u_texture,0),i)w.glyphAtlasTexture.bind(h.LINEAR,h.CLAMP_TO_EDGE),h.uniform2fv(u.uniforms.u_texsize,w.glyphAtlasTexture.size);else{var E=1!==r.layout.get(\\\"icon-size\\\").constantOr(0)||k.iconsNeedLinear,C=g||0!==p.pitch;w.iconAtlasTexture.bind(M||t.options.rotating||t.options.zooming||E||C?h.LINEAR:h.NEAREST,h.CLAMP_TO_EDGE),h.uniform2fv(u.uniforms.u_texsize,w.iconAtlasTexture.size)}h.uniformMatrix4fv(u.uniforms.u_matrix,!1,t.translatePosMatrix(_.posMatrix,w,a,o));var L=Me(w,1,t.transform.zoom),z=fe(_.posMatrix,g,d,t.transform,L),O=he(_.posMatrix,g,d,t.transform,L);h.uniformMatrix4fv(u.uniforms.u_gl_coord_matrix,!1,t.translatePosMatrix(O,w,a,o,!0)),v?(h.uniformMatrix4fv(u.uniforms.u_label_plane_matrix,!1,sr),ge(k,_.posMatrix,t,i,z,O,g,c)):h.uniformMatrix4fv(u.uniforms.u_label_plane_matrix,!1,z),h.uniform1f(u.uniforms.u_fade_change,t.options.fadeDuration?t.symbolFadeChange:1),fr(u,A,t,r,w,T,i,M,g)}}}}function ur(e,r,n,i,a,o,s){var l=r.context.gl,c=r.transform;l.uniform1i(e.uniforms.u_pitch_with_map,o?1:0),l.uniform1f(e.uniforms.u_is_text,i?1:0),l.uniform1f(e.uniforms.u_pitch,c.pitch/360*2*Math.PI);var u=\\\"constant\\\"===s.functionType||\\\"source\\\"===s.functionType,f=\\\"constant\\\"===s.functionType||\\\"camera\\\"===s.functionType;l.uniform1i(e.uniforms.u_is_size_zoom_constant,u?1:0),l.uniform1i(e.uniforms.u_is_size_feature_constant,f?1:0),l.uniform1f(e.uniforms.u_camera_to_center_distance,c.cameraToCenterDistance);var h=t.evaluateSizeForZoom(s,c.zoom,lr.properties[i?\\\"text-size\\\":\\\"icon-size\\\"]);void 0!==h.uSizeT&&l.uniform1f(e.uniforms.u_size_t,h.uSizeT),void 0!==h.uSize&&l.uniform1f(e.uniforms.u_size,h.uSize),l.uniform1f(e.uniforms.u_aspect_ratio,c.width/c.height),l.uniform1i(e.uniforms.u_rotate_symbol,a?1:0)}function fr(t,e,r,n,i,a,o,s,l){var c=r.context,u=c.gl,f=r.transform;if(s){var h=0!==n.paint.get(o?\\\"text-halo-width\\\":\\\"icon-halo-width\\\").constantOr(1),p=l?Math.cos(f._pitch)*f.cameraToCenterDistance:1;u.uniform1f(t.uniforms.u_gamma_scale,p),h&&(u.uniform1f(t.uniforms.u_is_halo,1),hr(a,n,c,t)),u.uniform1f(t.uniforms.u_is_halo,0)}hr(a,n,c,t)}function hr(t,e,r,n){n.draw(r,r.gl.TRIANGLES,e.id,t.layoutVertexBuffer,t.indexBuffer,t.segments,t.programConfigurations.get(e.id),t.dynamicLayoutVertexBuffer,t.opacityVertexBuffer)}function pr(t,e,r,n,i,o,s,l,c){var u,f,h,p,d=e.context,g=d.gl,v=i.paint.get(\\\"line-dasharray\\\"),m=i.paint.get(\\\"line-pattern\\\");if(l||c){var y=1/Me(r,1,e.transform.tileZoom);if(v){u=e.lineAtlas.getDash(v.from,\\\"round\\\"===i.layout.get(\\\"line-cap\\\")),f=e.lineAtlas.getDash(v.to,\\\"round\\\"===i.layout.get(\\\"line-cap\\\"));var x=u.width*v.fromScale,b=f.width*v.toScale;g.uniform2f(t.uniforms.u_patternscale_a,y/x,-u.height/2),g.uniform2f(t.uniforms.u_patternscale_b,y/b,-f.height/2),g.uniform1f(t.uniforms.u_sdfgamma,e.lineAtlas.width/(256*Math.min(x,b)*a.devicePixelRatio)/2)}else if(m){if(h=e.imageManager.getPattern(m.from),p=e.imageManager.getPattern(m.to),!h||!p)return;g.uniform2f(t.uniforms.u_pattern_size_a,h.displaySize[0]*m.fromScale/y,h.displaySize[1]),g.uniform2f(t.uniforms.u_pattern_size_b,p.displaySize[0]*m.toScale/y,p.displaySize[1]);var _=e.imageManager.getPixelSize(),w=_.width,k=_.height;g.uniform2fv(t.uniforms.u_texsize,[w,k])}g.uniform2f(t.uniforms.u_gl_units_to_pixels,1/e.transform.pixelsToGLUnits[0],1/e.transform.pixelsToGLUnits[1])}l&&(v?(g.uniform1i(t.uniforms.u_image,0),d.activeTexture.set(g.TEXTURE0),e.lineAtlas.bind(d),g.uniform1f(t.uniforms.u_tex_y_a,u.y),g.uniform1f(t.uniforms.u_tex_y_b,f.y),g.uniform1f(t.uniforms.u_mix,v.t)):m&&(g.uniform1i(t.uniforms.u_image,0),d.activeTexture.set(g.TEXTURE0),e.imageManager.bind(d),g.uniform2fv(t.uniforms.u_pattern_tl_a,h.tl),g.uniform2fv(t.uniforms.u_pattern_br_a,h.br),g.uniform2fv(t.uniforms.u_pattern_tl_b,p.tl),g.uniform2fv(t.uniforms.u_pattern_br_b,p.br),g.uniform1f(t.uniforms.u_fade,m.t))),d.setStencilMode(e.stencilModeForClipping(o));var T=e.translatePosMatrix(o.posMatrix,r,i.paint.get(\\\"line-translate\\\"),i.paint.get(\\\"line-translate-anchor\\\"));if(g.uniformMatrix4fv(t.uniforms.u_matrix,!1,T),g.uniform1f(t.uniforms.u_ratio,1/Me(r,1,e.transform.zoom)),i.paint.get(\\\"line-gradient\\\")){d.activeTexture.set(g.TEXTURE0);var A=i.gradientTexture;if(!i.gradient)return;A||(A=i.gradientTexture=new z(d,i.gradient,g.RGBA)),A.bind(g.LINEAR,g.CLAMP_TO_EDGE),g.uniform1i(t.uniforms.u_image,0)}t.draw(d,g.TRIANGLES,i.id,n.layoutVertexBuffer,n.indexBuffer,n.segments,s)}var dr=function(t,e){if(!t)return!1;var r=e.imageManager.getPattern(t.from),n=e.imageManager.getPattern(t.to);return!r||!n},gr=function(t,e,r){var n=e.context,i=n.gl,a=e.imageManager.getPattern(t.from),o=e.imageManager.getPattern(t.to);i.uniform1i(r.uniforms.u_image,0),i.uniform2fv(r.uniforms.u_pattern_tl_a,a.tl),i.uniform2fv(r.uniforms.u_pattern_br_a,a.br),i.uniform2fv(r.uniforms.u_pattern_tl_b,o.tl),i.uniform2fv(r.uniforms.u_pattern_br_b,o.br);var s=e.imageManager.getPixelSize(),l=s.width,c=s.height;i.uniform2fv(r.uniforms.u_texsize,[l,c]),i.uniform1f(r.uniforms.u_mix,t.t),i.uniform2fv(r.uniforms.u_pattern_size_a,a.displaySize),i.uniform2fv(r.uniforms.u_pattern_size_b,o.displaySize),i.uniform1f(r.uniforms.u_scale_a,t.fromScale),i.uniform1f(r.uniforms.u_scale_b,t.toScale),n.activeTexture.set(i.TEXTURE0),e.imageManager.bind(e.context)},vr=function(t,e,r){var n=e.context.gl;n.uniform1f(r.uniforms.u_tile_units_to_pixels,1/Me(t,1,e.transform.tileZoom));var i=Math.pow(2,t.tileID.overscaledZ),a=t.tileSize*Math.pow(2,e.transform.tileZoom)/i,o=a*(t.tileID.canonical.x+t.tileID.wrap*i),s=a*t.tileID.canonical.y;n.uniform2f(r.uniforms.u_pixel_coord_upper,o>>16,s>>16),n.uniform2f(r.uniforms.u_pixel_coord_lower,65535&o,65535&s)};function mr(t,e,r,n,i){if(!dr(r.paint.get(\\\"fill-pattern\\\"),t))for(var a=!0,o=0,s=n;o<s.length;o+=1){var l=s[o],c=e.getTile(l),u=c.getBucket(r);u&&(t.context.setStencilMode(t.stencilModeForClipping(l)),i(t,e,r,c,l,u,a),a=!1)}}function yr(t,e,r,n,i,a,o){var s=t.context.gl,l=a.programConfigurations.get(r.id);br(\\\"fill\\\",r.paint.get(\\\"fill-pattern\\\"),t,l,r,n,i,o).draw(t.context,s.TRIANGLES,r.id,a.layoutVertexBuffer,a.indexBuffer,a.segments,l)}function xr(t,e,r,n,i,a,o){var s=t.context.gl,l=a.programConfigurations.get(r.id),c=br(\\\"fillOutline\\\",r.getPaintProperty(\\\"fill-outline-color\\\")?null:r.paint.get(\\\"fill-pattern\\\"),t,l,r,n,i,o);s.uniform2f(c.uniforms.u_world,s.drawingBufferWidth,s.drawingBufferHeight),c.draw(t.context,s.LINES,r.id,a.layoutVertexBuffer,a.indexBuffer2,a.segments2,l)}function br(t,e,r,n,i,a,o,s){var l,c=r.context.program.get();return e?(l=r.useProgram(t+\\\"Pattern\\\",n),(s||l.program!==c)&&(n.setUniforms(r.context,l,i.paint,{zoom:r.transform.zoom}),gr(e,r,l)),vr(a,r,l)):(l=r.useProgram(t,n),(s||l.program!==c)&&n.setUniforms(r.context,l,i.paint,{zoom:r.transform.zoom})),r.context.gl.uniformMatrix4fv(l.uniforms.u_matrix,!1,r.translatePosMatrix(o.posMatrix,a,i.paint.get(\\\"fill-translate\\\"),i.paint.get(\\\"fill-translate-anchor\\\"))),l}var _r=t.default$20.mat3,wr=t.default$20.mat4,kr=t.default$20.vec3;function Tr(t,e,r,n,i,a,o){var s=t.context,l=s.gl,c=r.paint.get(\\\"fill-extrusion-pattern\\\"),u=t.context.program.get(),f=a.programConfigurations.get(r.id),h=t.useProgram(c?\\\"fillExtrusionPattern\\\":\\\"fillExtrusion\\\",f);if((o||h.program!==u)&&f.setUniforms(s,h,r.paint,{zoom:t.transform.zoom}),c){if(dr(c,t))return;gr(c,t,h),vr(n,t,h),l.uniform1f(h.uniforms.u_height_factor,-Math.pow(2,i.overscaledZ)/n.tileSize/8)}t.context.gl.uniformMatrix4fv(h.uniforms.u_matrix,!1,t.translatePosMatrix(i.posMatrix,n,r.paint.get(\\\"fill-extrusion-translate\\\"),r.paint.get(\\\"fill-extrusion-translate-anchor\\\"))),function(t,e){var r=e.context.gl,n=e.style.light,i=n.properties.get(\\\"position\\\"),a=[i.x,i.y,i.z],o=_r.create();\\\"viewport\\\"===n.properties.get(\\\"anchor\\\")&&_r.fromRotation(o,-e.transform.angle),kr.transformMat3(a,a,o);var s=n.properties.get(\\\"color\\\");r.uniform3fv(t.uniforms.u_lightpos,a),r.uniform1f(t.uniforms.u_lightintensity,n.properties.get(\\\"intensity\\\")),r.uniform3f(t.uniforms.u_lightcolor,s.r,s.g,s.b)}(h,t),h.draw(s,l.TRIANGLES,r.id,a.layoutVertexBuffer,a.indexBuffer,a.segments,f)}function Ar(e,r,n){var i=e.context,a=i.gl,o=r.fbo;if(o){var s=e.useProgram(\\\"hillshade\\\"),l=e.transform.calculatePosMatrix(r.tileID.toUnwrapped(),!0);!function(t,e,r){var n=r.paint.get(\\\"hillshade-illumination-direction\\\")*(Math.PI/180);\\\"viewport\\\"===r.paint.get(\\\"hillshade-illumination-anchor\\\")&&(n-=e.transform.angle),e.context.gl.uniform2f(t.uniforms.u_light,r.paint.get(\\\"hillshade-exaggeration\\\"),n)}(s,e,n);var c=function(e,r){var n=r.toCoordinate(),i=new t.default$17(n.column,n.row+1,n.zoom);return[e.transform.coordinateLocation(n).lat,e.transform.coordinateLocation(i).lat]}(e,r.tileID);i.activeTexture.set(a.TEXTURE0),a.bindTexture(a.TEXTURE_2D,o.colorAttachment.get()),a.uniformMatrix4fv(s.uniforms.u_matrix,!1,l),a.uniform2fv(s.uniforms.u_latrange,c),a.uniform1i(s.uniforms.u_image,0);var u=n.paint.get(\\\"hillshade-shadow-color\\\");a.uniform4f(s.uniforms.u_shadow,u.r,u.g,u.b,u.a);var f=n.paint.get(\\\"hillshade-highlight-color\\\");a.uniform4f(s.uniforms.u_highlight,f.r,f.g,f.b,f.a);var h=n.paint.get(\\\"hillshade-accent-color\\\");if(a.uniform4f(s.uniforms.u_accent,h.r,h.g,h.b,h.a),r.maskedBoundsBuffer&&r.maskedIndexBuffer&&r.segments)s.draw(i,a.TRIANGLES,n.id,r.maskedBoundsBuffer,r.maskedIndexBuffer,r.segments);else{var p=e.rasterBoundsBuffer;e.rasterBoundsVAO.bind(i,s,p,[]),a.drawArrays(a.TRIANGLE_STRIP,0,p.length)}}}function Mr(e,r,n){var i=e.context,a=i.gl;if(r.dem&&r.dem.level){var o=r.dem.level.dim,s=r.dem.getPixels();if(i.activeTexture.set(a.TEXTURE1),i.pixelStoreUnpackPremultiplyAlpha.set(!1),r.demTexture=r.demTexture||e.getTileTexture(r.tileSize),r.demTexture){var l=r.demTexture;l.update(s,{premultiply:!1}),l.bind(a.NEAREST,a.CLAMP_TO_EDGE)}else r.demTexture=new z(i,s,a.RGBA,{premultiply:!1}),r.demTexture.bind(a.NEAREST,a.CLAMP_TO_EDGE);i.activeTexture.set(a.TEXTURE0);var c=r.fbo;if(!c){var u=new z(i,{width:o,height:o,data:null},a.RGBA);u.bind(a.LINEAR,a.CLAMP_TO_EDGE),(c=r.fbo=i.createFramebuffer(o,o)).colorAttachment.set(u.texture)}i.bindFramebuffer.set(c.framebuffer),i.viewport.set([0,0,o,o]);var f=t.mat4.create();t.mat4.ortho(f,0,t.default$8,-t.default$8,0,0,1),t.mat4.translate(f,f,[0,-t.default$8,0]);var h=e.useProgram(\\\"hillshadePrepare\\\");a.uniformMatrix4fv(h.uniforms.u_matrix,!1,f),a.uniform1f(h.uniforms.u_zoom,r.tileID.overscaledZ),a.uniform2fv(h.uniforms.u_dimension,[2*o,2*o]),a.uniform1i(h.uniforms.u_image,1),a.uniform1f(h.uniforms.u_maxzoom,n);var p=e.rasterBoundsBuffer;e.rasterBoundsVAO.bind(i,h,p,[]),a.drawArrays(a.TRIANGLE_STRIP,0,p.length),r.needsHillshadePrepare=!1}}function Sr(e,r,n,i,o){var s=i.paint.get(\\\"raster-fade-duration\\\");if(s>0){var l=a.now(),c=(l-e.timeAdded)/s,u=r?(l-r.timeAdded)/s:-1,f=n.getSource(),h=o.coveringZoomLevel({tileSize:f.tileSize,roundZoom:f.roundZoom}),p=!r||Math.abs(r.tileID.overscaledZ-h)>Math.abs(e.tileID.overscaledZ-h),d=p&&e.refreshedUponExpiration?1:t.clamp(p?c:1-u,0,1);return e.refreshedUponExpiration&&c>=1&&(e.refreshedUponExpiration=!1),r?{opacity:1,mix:1-d}:{opacity:d,mix:0}}return{opacity:1,mix:0}}function Er(e,r,n){var i=e.context,o=i.gl;i.lineWidth.set(1*a.devicePixelRatio);var s=n.posMatrix,l=e.useProgram(\\\"debug\\\");i.setDepthMode(Ht.disabled),i.setStencilMode(qt.disabled),i.setColorMode(e.colorModeForRenderPass()),o.uniformMatrix4fv(l.uniforms.u_matrix,!1,s),o.uniform4f(l.uniforms.u_color,1,0,0,1),e.debugVAO.bind(i,l,e.debugBuffer,[]),o.drawArrays(o.LINE_STRIP,0,e.debugBuffer.length);for(var c=function(t,e,r,n){n=n||1;var i,a,o,s,l,c,u,f,h=[];for(i=0,a=t.length;i<a;i++)if(l=Cr[t[i]]){for(f=null,o=0,s=l[1].length;o<s;o+=2)-1===l[1][o]&&-1===l[1][o+1]?f=null:(c=e+l[1][o]*n,u=200-l[1][o+1]*n,f&&h.push(f.x,f.y,c,u),f={x:c,y:u});e+=l[0]*n}return h}(n.toString(),50,0,5),u=new t.PosArray,f=0;f<c.length;f+=2)u.emplaceBack(c[f],c[f+1]);var h=i.createVertexBuffer(u,Ke.members);(new Q).bind(i,l,h,[]),o.uniform4f(l.uniforms.u_color,1,1,1,1);for(var p=r.getTile(n).tileSize,d=t.default$8/(Math.pow(2,e.transform.zoom-n.overscaledZ)*p),g=[[-1,-1],[-1,1],[1,-1],[1,1]],v=0;v<g.length;v++){var m=g[v];o.uniformMatrix4fv(l.uniforms.u_matrix,!1,t.mat4.translate([],s,[d*m[0],d*m[1],0])),o.drawArrays(o.LINES,0,h.length)}o.uniform4f(l.uniforms.u_color,0,0,0,1),o.uniformMatrix4fv(l.uniforms.u_matrix,!1,s),o.drawArrays(o.LINES,0,h.length)}var Cr={\\\" \\\":[16,[]],\\\"!\\\":[10,[5,21,5,7,-1,-1,5,2,4,1,5,0,6,1,5,2]],'\\\"':[16,[4,21,4,14,-1,-1,12,21,12,14]],\\\"#\\\":[21,[11,25,4,-7,-1,-1,17,25,10,-7,-1,-1,4,12,18,12,-1,-1,3,6,17,6]],$:[20,[8,25,8,-4,-1,-1,12,25,12,-4,-1,-1,17,18,15,20,12,21,8,21,5,20,3,18,3,16,4,14,5,13,7,12,13,10,15,9,16,8,17,6,17,3,15,1,12,0,8,0,5,1,3,3]],\\\"%\\\":[24,[21,21,3,0,-1,-1,8,21,10,19,10,17,9,15,7,14,5,14,3,16,3,18,4,20,6,21,8,21,10,20,13,19,16,19,19,20,21,21,-1,-1,17,7,15,6,14,4,14,2,16,0,18,0,20,1,21,3,21,5,19,7,17,7]],\\\"&\\\":[26,[23,12,23,13,22,14,21,14,20,13,19,11,17,6,15,3,13,1,11,0,7,0,5,1,4,2,3,4,3,6,4,8,5,9,12,13,13,14,14,16,14,18,13,20,11,21,9,20,8,18,8,16,9,13,11,10,16,3,18,1,20,0,22,0,23,1,23,2]],\\\"'\\\":[10,[5,19,4,20,5,21,6,20,6,18,5,16,4,15]],\\\"(\\\":[14,[11,25,9,23,7,20,5,16,4,11,4,7,5,2,7,-2,9,-5,11,-7]],\\\")\\\":[14,[3,25,5,23,7,20,9,16,10,11,10,7,9,2,7,-2,5,-5,3,-7]],\\\"*\\\":[16,[8,21,8,9,-1,-1,3,18,13,12,-1,-1,13,18,3,12]],\\\"+\\\":[26,[13,18,13,0,-1,-1,4,9,22,9]],\\\",\\\":[10,[6,1,5,0,4,1,5,2,6,1,6,-1,5,-3,4,-4]],\\\"-\\\":[26,[4,9,22,9]],\\\".\\\":[10,[5,2,4,1,5,0,6,1,5,2]],\\\"/\\\":[22,[20,25,2,-7]],0:[20,[9,21,6,20,4,17,3,12,3,9,4,4,6,1,9,0,11,0,14,1,16,4,17,9,17,12,16,17,14,20,11,21,9,21]],1:[20,[6,17,8,18,11,21,11,0]],2:[20,[4,16,4,17,5,19,6,20,8,21,12,21,14,20,15,19,16,17,16,15,15,13,13,10,3,0,17,0]],3:[20,[5,21,16,21,10,13,13,13,15,12,16,11,17,8,17,6,16,3,14,1,11,0,8,0,5,1,4,2,3,4]],4:[20,[13,21,3,7,18,7,-1,-1,13,21,13,0]],5:[20,[15,21,5,21,4,12,5,13,8,14,11,14,14,13,16,11,17,8,17,6,16,3,14,1,11,0,8,0,5,1,4,2,3,4]],6:[20,[16,18,15,20,12,21,10,21,7,20,5,17,4,12,4,7,5,3,7,1,10,0,11,0,14,1,16,3,17,6,17,7,16,10,14,12,11,13,10,13,7,12,5,10,4,7]],7:[20,[17,21,7,0,-1,-1,3,21,17,21]],8:[20,[8,21,5,20,4,18,4,16,5,14,7,13,11,12,14,11,16,9,17,7,17,4,16,2,15,1,12,0,8,0,5,1,4,2,3,4,3,7,4,9,6,11,9,12,13,13,15,14,16,16,16,18,15,20,12,21,8,21]],9:[20,[16,14,15,11,13,9,10,8,9,8,6,9,4,11,3,14,3,15,4,18,6,20,9,21,10,21,13,20,15,18,16,14,16,9,15,4,13,1,10,0,8,0,5,1,4,3]],\\\":\\\":[10,[5,14,4,13,5,12,6,13,5,14,-1,-1,5,2,4,1,5,0,6,1,5,2]],\\\";\\\":[10,[5,14,4,13,5,12,6,13,5,14,-1,-1,6,1,5,0,4,1,5,2,6,1,6,-1,5,-3,4,-4]],\\\"<\\\":[24,[20,18,4,9,20,0]],\\\"=\\\":[26,[4,12,22,12,-1,-1,4,6,22,6]],\\\">\\\":[24,[4,18,20,9,4,0]],\\\"?\\\":[18,[3,16,3,17,4,19,5,20,7,21,11,21,13,20,14,19,15,17,15,15,14,13,13,12,9,10,9,7,-1,-1,9,2,8,1,9,0,10,1,9,2]],\\\"@\\\":[27,[18,13,17,15,15,16,12,16,10,15,9,14,8,11,8,8,9,6,11,5,14,5,16,6,17,8,-1,-1,12,16,10,14,9,11,9,8,10,6,11,5,-1,-1,18,16,17,8,17,6,19,5,21,5,23,7,24,10,24,12,23,15,22,17,20,19,18,20,15,21,12,21,9,20,7,19,5,17,4,15,3,12,3,9,4,6,5,4,7,2,9,1,12,0,15,0,18,1,20,2,21,3,-1,-1,19,16,18,8,18,6,19,5]],A:[18,[9,21,1,0,-1,-1,9,21,17,0,-1,-1,4,7,14,7]],B:[21,[4,21,4,0,-1,-1,4,21,13,21,16,20,17,19,18,17,18,15,17,13,16,12,13,11,-1,-1,4,11,13,11,16,10,17,9,18,7,18,4,17,2,16,1,13,0,4,0]],C:[21,[18,16,17,18,15,20,13,21,9,21,7,20,5,18,4,16,3,13,3,8,4,5,5,3,7,1,9,0,13,0,15,1,17,3,18,5]],D:[21,[4,21,4,0,-1,-1,4,21,11,21,14,20,16,18,17,16,18,13,18,8,17,5,16,3,14,1,11,0,4,0]],E:[19,[4,21,4,0,-1,-1,4,21,17,21,-1,-1,4,11,12,11,-1,-1,4,0,17,0]],F:[18,[4,21,4,0,-1,-1,4,21,17,21,-1,-1,4,11,12,11]],G:[21,[18,16,17,18,15,20,13,21,9,21,7,20,5,18,4,16,3,13,3,8,4,5,5,3,7,1,9,0,13,0,15,1,17,3,18,5,18,8,-1,-1,13,8,18,8]],H:[22,[4,21,4,0,-1,-1,18,21,18,0,-1,-1,4,11,18,11]],I:[8,[4,21,4,0]],J:[16,[12,21,12,5,11,2,10,1,8,0,6,0,4,1,3,2,2,5,2,7]],K:[21,[4,21,4,0,-1,-1,18,21,4,7,-1,-1,9,12,18,0]],L:[17,[4,21,4,0,-1,-1,4,0,16,0]],M:[24,[4,21,4,0,-1,-1,4,21,12,0,-1,-1,20,21,12,0,-1,-1,20,21,20,0]],N:[22,[4,21,4,0,-1,-1,4,21,18,0,-1,-1,18,21,18,0]],O:[22,[9,21,7,20,5,18,4,16,3,13,3,8,4,5,5,3,7,1,9,0,13,0,15,1,17,3,18,5,19,8,19,13,18,16,17,18,15,20,13,21,9,21]],P:[21,[4,21,4,0,-1,-1,4,21,13,21,16,20,17,19,18,17,18,14,17,12,16,11,13,10,4,10]],Q:[22,[9,21,7,20,5,18,4,16,3,13,3,8,4,5,5,3,7,1,9,0,13,0,15,1,17,3,18,5,19,8,19,13,18,16,17,18,15,20,13,21,9,21,-1,-1,12,4,18,-2]],R:[21,[4,21,4,0,-1,-1,4,21,13,21,16,20,17,19,18,17,18,15,17,13,16,12,13,11,4,11,-1,-1,11,11,18,0]],S:[20,[17,18,15,20,12,21,8,21,5,20,3,18,3,16,4,14,5,13,7,12,13,10,15,9,16,8,17,6,17,3,15,1,12,0,8,0,5,1,3,3]],T:[16,[8,21,8,0,-1,-1,1,21,15,21]],U:[22,[4,21,4,6,5,3,7,1,10,0,12,0,15,1,17,3,18,6,18,21]],V:[18,[1,21,9,0,-1,-1,17,21,9,0]],W:[24,[2,21,7,0,-1,-1,12,21,7,0,-1,-1,12,21,17,0,-1,-1,22,21,17,0]],X:[20,[3,21,17,0,-1,-1,17,21,3,0]],Y:[18,[1,21,9,11,9,0,-1,-1,17,21,9,11]],Z:[20,[17,21,3,0,-1,-1,3,21,17,21,-1,-1,3,0,17,0]],\\\"[\\\":[14,[4,25,4,-7,-1,-1,5,25,5,-7,-1,-1,4,25,11,25,-1,-1,4,-7,11,-7]],\\\"\\\\\\\\\\\":[14,[0,21,14,-3]],\\\"]\\\":[14,[9,25,9,-7,-1,-1,10,25,10,-7,-1,-1,3,25,10,25,-1,-1,3,-7,10,-7]],\\\"^\\\":[16,[6,15,8,18,10,15,-1,-1,3,12,8,17,13,12,-1,-1,8,17,8,0]],_:[16,[0,-2,16,-2]],\\\"`\\\":[10,[6,21,5,20,4,18,4,16,5,15,6,16,5,17]],a:[19,[15,14,15,0,-1,-1,15,11,13,13,11,14,8,14,6,13,4,11,3,8,3,6,4,3,6,1,8,0,11,0,13,1,15,3]],b:[19,[4,21,4,0,-1,-1,4,11,6,13,8,14,11,14,13,13,15,11,16,8,16,6,15,3,13,1,11,0,8,0,6,1,4,3]],c:[18,[15,11,13,13,11,14,8,14,6,13,4,11,3,8,3,6,4,3,6,1,8,0,11,0,13,1,15,3]],d:[19,[15,21,15,0,-1,-1,15,11,13,13,11,14,8,14,6,13,4,11,3,8,3,6,4,3,6,1,8,0,11,0,13,1,15,3]],e:[18,[3,8,15,8,15,10,14,12,13,13,11,14,8,14,6,13,4,11,3,8,3,6,4,3,6,1,8,0,11,0,13,1,15,3]],f:[12,[10,21,8,21,6,20,5,17,5,0,-1,-1,2,14,9,14]],g:[19,[15,14,15,-2,14,-5,13,-6,11,-7,8,-7,6,-6,-1,-1,15,11,13,13,11,14,8,14,6,13,4,11,3,8,3,6,4,3,6,1,8,0,11,0,13,1,15,3]],h:[19,[4,21,4,0,-1,-1,4,10,7,13,9,14,12,14,14,13,15,10,15,0]],i:[8,[3,21,4,20,5,21,4,22,3,21,-1,-1,4,14,4,0]],j:[10,[5,21,6,20,7,21,6,22,5,21,-1,-1,6,14,6,-3,5,-6,3,-7,1,-7]],k:[17,[4,21,4,0,-1,-1,14,14,4,4,-1,-1,8,8,15,0]],l:[8,[4,21,4,0]],m:[30,[4,14,4,0,-1,-1,4,10,7,13,9,14,12,14,14,13,15,10,15,0,-1,-1,15,10,18,13,20,14,23,14,25,13,26,10,26,0]],n:[19,[4,14,4,0,-1,-1,4,10,7,13,9,14,12,14,14,13,15,10,15,0]],o:[19,[8,14,6,13,4,11,3,8,3,6,4,3,6,1,8,0,11,0,13,1,15,3,16,6,16,8,15,11,13,13,11,14,8,14]],p:[19,[4,14,4,-7,-1,-1,4,11,6,13,8,14,11,14,13,13,15,11,16,8,16,6,15,3,13,1,11,0,8,0,6,1,4,3]],q:[19,[15,14,15,-7,-1,-1,15,11,13,13,11,14,8,14,6,13,4,11,3,8,3,6,4,3,6,1,8,0,11,0,13,1,15,3]],r:[13,[4,14,4,0,-1,-1,4,8,5,11,7,13,9,14,12,14]],s:[17,[14,11,13,13,10,14,7,14,4,13,3,11,4,9,6,8,11,7,13,6,14,4,14,3,13,1,10,0,7,0,4,1,3,3]],t:[12,[5,21,5,4,6,1,8,0,10,0,-1,-1,2,14,9,14]],u:[19,[4,14,4,4,5,1,7,0,10,0,12,1,15,4,-1,-1,15,14,15,0]],v:[16,[2,14,8,0,-1,-1,14,14,8,0]],w:[22,[3,14,7,0,-1,-1,11,14,7,0,-1,-1,11,14,15,0,-1,-1,19,14,15,0]],x:[17,[3,14,14,0,-1,-1,14,14,3,0]],y:[16,[2,14,8,0,-1,-1,14,14,8,0,6,-4,4,-6,2,-7,1,-7]],z:[17,[14,14,3,0,-1,-1,3,14,14,14,-1,-1,3,0,14,0]],\\\"{\\\":[14,[9,25,7,24,6,23,5,21,5,19,6,17,7,16,8,14,8,12,6,10,-1,-1,7,24,6,22,6,20,7,18,8,17,9,15,9,13,8,11,4,9,8,7,9,5,9,3,8,1,7,0,6,-2,6,-4,7,-6,-1,-1,6,8,8,6,8,4,7,2,6,1,5,-1,5,-3,6,-5,7,-6,9,-7]],\\\"|\\\":[8,[4,25,4,-7]],\\\"}\\\":[14,[5,25,7,24,8,23,9,21,9,19,8,17,7,16,6,14,6,12,8,10,-1,-1,7,24,8,22,8,20,7,18,6,17,5,15,5,13,6,11,10,9,6,7,5,5,5,3,6,1,7,0,8,-2,8,-4,7,-6,-1,-1,8,8,6,6,6,4,7,2,8,1,9,-1,9,-3,8,-5,7,-6,5,-7]],\\\"~\\\":[24,[3,6,3,8,4,11,6,12,8,12,10,11,14,8,16,7,18,7,20,8,21,10,-1,-1,3,8,4,10,6,11,8,11,10,10,14,7,16,6,18,6,20,7,21,10,21,12]]},Lr={symbol:function(t,e,r,n){if(\\\"translucent\\\"===t.renderPass){var i=t.context;i.setStencilMode(qt.disabled),i.setColorMode(t.colorModeForRenderPass()),0!==r.paint.get(\\\"icon-opacity\\\").constantOr(1)&&cr(t,e,r,n,!1,r.paint.get(\\\"icon-translate\\\"),r.paint.get(\\\"icon-translate-anchor\\\"),r.layout.get(\\\"icon-rotation-alignment\\\"),r.layout.get(\\\"icon-pitch-alignment\\\"),r.layout.get(\\\"icon-keep-upright\\\")),0!==r.paint.get(\\\"text-opacity\\\").constantOr(1)&&cr(t,e,r,n,!0,r.paint.get(\\\"text-translate\\\"),r.paint.get(\\\"text-translate-anchor\\\"),r.layout.get(\\\"text-rotation-alignment\\\"),r.layout.get(\\\"text-pitch-alignment\\\"),r.layout.get(\\\"text-keep-upright\\\")),e.map.showCollisionBoxes&&function(t,e,r,n){or(t,e,r,n,!1),or(t,e,r,n,!0)}(t,e,r,n)}},circle:function(t,e,r,n){if(\\\"translucent\\\"===t.renderPass){var i=r.paint.get(\\\"circle-opacity\\\"),a=r.paint.get(\\\"circle-stroke-width\\\"),o=r.paint.get(\\\"circle-stroke-opacity\\\");if(0!==i.constantOr(1)||0!==a.constantOr(1)&&0!==o.constantOr(1)){var s=t.context,l=s.gl;s.setDepthMode(t.depthModeForSublayer(0,Ht.ReadOnly)),s.setStencilMode(qt.disabled),s.setColorMode(t.colorModeForRenderPass());for(var c=!0,u=0;u<n.length;u++){var f=n[u],h=e.getTile(f),p=h.getBucket(r);if(p){var d=t.context.program.get(),g=p.programConfigurations.get(r.id),v=t.useProgram(\\\"circle\\\",g);if((c||v.program!==d)&&(g.setUniforms(s,v,r.paint,{zoom:t.transform.zoom}),c=!1),l.uniform1f(v.uniforms.u_camera_to_center_distance,t.transform.cameraToCenterDistance),l.uniform1i(v.uniforms.u_scale_with_map,\\\"map\\\"===r.paint.get(\\\"circle-pitch-scale\\\")?1:0),\\\"map\\\"===r.paint.get(\\\"circle-pitch-alignment\\\")){l.uniform1i(v.uniforms.u_pitch_with_map,1);var m=Me(h,1,t.transform.zoom);l.uniform2f(v.uniforms.u_extrude_scale,m,m)}else l.uniform1i(v.uniforms.u_pitch_with_map,0),l.uniform2fv(v.uniforms.u_extrude_scale,t.transform.pixelsToGLUnits);l.uniformMatrix4fv(v.uniforms.u_matrix,!1,t.translatePosMatrix(f.posMatrix,h,r.paint.get(\\\"circle-translate\\\"),r.paint.get(\\\"circle-translate-anchor\\\"))),v.draw(s,l.TRIANGLES,r.id,p.layoutVertexBuffer,p.indexBuffer,p.segments,g)}}}}},heatmap:function(e,r,n,i){if(0!==n.paint.get(\\\"heatmap-opacity\\\"))if(\\\"offscreen\\\"===e.renderPass){var a=e.context,o=a.gl;a.setDepthMode(e.depthModeForSublayer(0,Ht.ReadOnly)),a.setStencilMode(qt.disabled),function(t,e,r){var n=t.gl;t.activeTexture.set(n.TEXTURE1),t.viewport.set([0,0,e.width/4,e.height/4]);var i=r.heatmapFbo;if(i)n.bindTexture(n.TEXTURE_2D,i.colorAttachment.get()),t.bindFramebuffer.set(i.framebuffer);else{var a=n.createTexture();n.bindTexture(n.TEXTURE_2D,a),n.texParameteri(n.TEXTURE_2D,n.TEXTURE_WRAP_S,n.CLAMP_TO_EDGE),n.texParameteri(n.TEXTURE_2D,n.TEXTURE_WRAP_T,n.CLAMP_TO_EDGE),n.texParameteri(n.TEXTURE_2D,n.TEXTURE_MIN_FILTER,n.LINEAR),n.texParameteri(n.TEXTURE_2D,n.TEXTURE_MAG_FILTER,n.LINEAR),i=r.heatmapFbo=t.createFramebuffer(e.width/4,e.height/4),function t(e,r,n,i){var a=e.gl;a.texImage2D(a.TEXTURE_2D,0,a.RGBA,r.width/4,r.height/4,0,a.RGBA,e.extTextureHalfFloat?e.extTextureHalfFloat.HALF_FLOAT_OES:a.UNSIGNED_BYTE,null),i.colorAttachment.set(n),e.extTextureHalfFloat&&a.checkFramebufferStatus(a.FRAMEBUFFER)!==a.FRAMEBUFFER_COMPLETE&&(e.extTextureHalfFloat=null,i.colorAttachment.setDirty(),t(e,r,n,i))}(t,e,a,i)}}(a,e,n),a.clear({color:t.default$6.transparent}),a.setColorMode(new Gt([o.ONE,o.ONE],t.default$6.transparent,[!0,!0,!0,!0]));for(var s=!0,l=0;l<i.length;l++){var c=i[l];if(!r.hasRenderableParent(c)){var u=r.getTile(c),f=u.getBucket(n);if(f){var h=e.context.program.get(),p=f.programConfigurations.get(n.id),d=e.useProgram(\\\"heatmap\\\",p),g=e.transform.zoom;(s||d.program!==h)&&(p.setUniforms(e.context,d,n.paint,{zoom:g}),s=!1),o.uniform1f(d.uniforms.u_extrude_scale,Me(u,1,g)),o.uniform1f(d.uniforms.u_intensity,n.paint.get(\\\"heatmap-intensity\\\")),o.uniformMatrix4fv(d.uniforms.u_matrix,!1,c.posMatrix),d.draw(a,o.TRIANGLES,n.id,f.layoutVertexBuffer,f.indexBuffer,f.segments,p)}}}a.viewport.set([0,0,e.width,e.height])}else\\\"translucent\\\"===e.renderPass&&(e.context.setColorMode(e.colorModeForRenderPass()),function(e,r){var n=e.context,i=n.gl,a=r.heatmapFbo;if(a){n.activeTexture.set(i.TEXTURE0),i.bindTexture(i.TEXTURE_2D,a.colorAttachment.get()),n.activeTexture.set(i.TEXTURE1);var o=r.colorRampTexture;o||(o=r.colorRampTexture=new z(n,r.colorRamp,i.RGBA)),o.bind(i.LINEAR,i.CLAMP_TO_EDGE),n.setDepthMode(Ht.disabled);var s=e.useProgram(\\\"heatmapTexture\\\"),l=r.paint.get(\\\"heatmap-opacity\\\");i.uniform1f(s.uniforms.u_opacity,l),i.uniform1i(s.uniforms.u_image,0),i.uniform1i(s.uniforms.u_color_ramp,1);var c=t.mat4.create();t.mat4.ortho(c,0,e.width,e.height,0,0,1),i.uniformMatrix4fv(s.uniforms.u_matrix,!1,c),i.uniform2f(s.uniforms.u_world,i.drawingBufferWidth,i.drawingBufferHeight),e.viewportVAO.bind(e.context,s,e.viewportBuffer,[]),i.drawArrays(i.TRIANGLE_STRIP,0,4)}}(e,n))},line:function(t,e,r,n){if(\\\"translucent\\\"===t.renderPass&&0!==r.paint.get(\\\"line-opacity\\\").constantOr(1)){var i=t.context;i.setDepthMode(t.depthModeForSublayer(0,Ht.ReadOnly)),i.setColorMode(t.colorModeForRenderPass());for(var a,o=r.paint.get(\\\"line-dasharray\\\")?\\\"lineSDF\\\":r.paint.get(\\\"line-pattern\\\")?\\\"linePattern\\\":r.paint.get(\\\"line-gradient\\\")?\\\"lineGradient\\\":\\\"line\\\",s=!0,l=0,c=n;l<c.length;l+=1){var u=c[l],f=e.getTile(u),h=f.getBucket(r);if(h){var p=h.programConfigurations.get(r.id),d=t.context.program.get(),g=t.useProgram(o,p),v=s||g.program!==d,m=a!==f.tileID.overscaledZ;v&&p.setUniforms(t.context,g,r.paint,{zoom:t.transform.zoom}),pr(g,t,f,h,r,u,p,v,m),a=f.tileID.overscaledZ,s=!1}}}},fill:function(e,r,n,i){var a=n.paint.get(\\\"fill-color\\\"),o=n.paint.get(\\\"fill-opacity\\\");if(0!==o.constantOr(1)){var s=e.context;s.setColorMode(e.colorModeForRenderPass());var l=n.paint.get(\\\"fill-pattern\\\")||1!==a.constantOr(t.default$6.transparent).a||1!==o.constantOr(0)?\\\"translucent\\\":\\\"opaque\\\";e.renderPass===l&&(s.setDepthMode(e.depthModeForSublayer(1,\\\"opaque\\\"===e.renderPass?Ht.ReadWrite:Ht.ReadOnly)),mr(e,r,n,i,yr)),\\\"translucent\\\"===e.renderPass&&n.paint.get(\\\"fill-antialias\\\")&&(s.lineWidth.set(2),s.setDepthMode(e.depthModeForSublayer(n.getPaintProperty(\\\"fill-outline-color\\\")?2:0,Ht.ReadOnly)),mr(e,r,n,i,xr))}},\\\"fill-extrusion\\\":function(e,r,n,i){if(0!==n.paint.get(\\\"fill-extrusion-opacity\\\"))if(\\\"offscreen\\\"===e.renderPass){!function(e,r){var n=e.context,i=n.gl,a=r.viewportFrame;if(e.depthRboNeedsClear&&e.setupOffscreenDepthRenderbuffer(),!a){var o=new z(n,{width:e.width,height:e.height,data:null},i.RGBA);o.bind(i.LINEAR,i.CLAMP_TO_EDGE),(a=r.viewportFrame=n.createFramebuffer(e.width,e.height)).colorAttachment.set(o.texture)}n.bindFramebuffer.set(a.framebuffer),a.depthAttachment.set(e.depthRbo),e.depthRboNeedsClear&&(n.clear({depth:1}),e.depthRboNeedsClear=!1),n.clear({color:t.default$6.transparent}),n.setStencilMode(qt.disabled),n.setDepthMode(new Ht(i.LEQUAL,Ht.ReadWrite,[0,1])),n.setColorMode(e.colorModeForRenderPass())}(e,n);for(var a=!0,o=0,s=i;o<s.length;o+=1){var l=s[o],c=r.getTile(l),u=c.getBucket(n);u&&(Tr(e,0,n,c,l,u,a),a=!1)}}else\\\"translucent\\\"===e.renderPass&&function(t,e){var r=e.viewportFrame;if(r){var n=t.context,i=n.gl,a=t.useProgram(\\\"extrusionTexture\\\");n.setStencilMode(qt.disabled),n.setDepthMode(Ht.disabled),n.setColorMode(t.colorModeForRenderPass()),n.activeTexture.set(i.TEXTURE0),i.bindTexture(i.TEXTURE_2D,r.colorAttachment.get()),i.uniform1f(a.uniforms.u_opacity,e.paint.get(\\\"fill-extrusion-opacity\\\")),i.uniform1i(a.uniforms.u_image,0);var o=wr.create();wr.ortho(o,0,t.width,t.height,0,0,1),i.uniformMatrix4fv(a.uniforms.u_matrix,!1,o),i.uniform2f(a.uniforms.u_world,i.drawingBufferWidth,i.drawingBufferHeight),t.viewportVAO.bind(n,a,t.viewportBuffer,[]),i.drawArrays(i.TRIANGLE_STRIP,0,4)}}(e,n)},hillshade:function(t,e,r,n){if(\\\"offscreen\\\"===t.renderPass||\\\"translucent\\\"===t.renderPass){var i=t.context,a=e.getSource().maxzoom;i.setDepthMode(t.depthModeForSublayer(0,Ht.ReadOnly)),i.setStencilMode(qt.disabled),i.setColorMode(t.colorModeForRenderPass());for(var o=0,s=n;o<s.length;o+=1){var l=s[o],c=e.getTile(l);c.needsHillshadePrepare&&\\\"offscreen\\\"===t.renderPass?Mr(t,c,a):\\\"translucent\\\"===t.renderPass&&Ar(t,c,r)}i.viewport.set([0,0,t.width,t.height])}},raster:function(t,e,r,n){if(\\\"translucent\\\"===t.renderPass&&0!==r.paint.get(\\\"raster-opacity\\\")){var i,a,o=t.context,s=o.gl,l=e.getSource(),c=t.useProgram(\\\"raster\\\");o.setStencilMode(qt.disabled),o.setColorMode(t.colorModeForRenderPass()),s.uniform1f(c.uniforms.u_brightness_low,r.paint.get(\\\"raster-brightness-min\\\")),s.uniform1f(c.uniforms.u_brightness_high,r.paint.get(\\\"raster-brightness-max\\\")),s.uniform1f(c.uniforms.u_saturation_factor,(i=r.paint.get(\\\"raster-saturation\\\"))>0?1-1/(1.001-i):-i),s.uniform1f(c.uniforms.u_contrast_factor,(a=r.paint.get(\\\"raster-contrast\\\"))>0?1/(1-a):1+a),s.uniform3fv(c.uniforms.u_spin_weights,function(t){t*=Math.PI/180;var e=Math.sin(t),r=Math.cos(t);return[(2*r+1)/3,(-Math.sqrt(3)*e-r+1)/3,(Math.sqrt(3)*e-r+1)/3]}(r.paint.get(\\\"raster-hue-rotate\\\"))),s.uniform1f(c.uniforms.u_buffer_scale,1),s.uniform1i(c.uniforms.u_image0,0),s.uniform1i(c.uniforms.u_image1,1);for(var u=n.length&&n[0].overscaledZ,f=0,h=n;f<h.length;f+=1){var p=h[f];o.setDepthMode(t.depthModeForSublayer(p.overscaledZ-u,1===r.paint.get(\\\"raster-opacity\\\")?Ht.ReadWrite:Ht.ReadOnly,s.LESS));var d=e.getTile(p),g=t.transform.calculatePosMatrix(p.toUnwrapped(),!0);d.registerFadeDuration(r.paint.get(\\\"raster-fade-duration\\\")),s.uniformMatrix4fv(c.uniforms.u_matrix,!1,g);var v=e.findLoadedParent(p,0,{}),m=Sr(d,v,e,r,t.transform),y=void 0,x=void 0;if(o.activeTexture.set(s.TEXTURE0),d.texture.bind(s.LINEAR,s.CLAMP_TO_EDGE,s.LINEAR_MIPMAP_NEAREST),o.activeTexture.set(s.TEXTURE1),v?(v.texture.bind(s.LINEAR,s.CLAMP_TO_EDGE,s.LINEAR_MIPMAP_NEAREST),y=Math.pow(2,v.tileID.overscaledZ-d.tileID.overscaledZ),x=[d.tileID.canonical.x*y%1,d.tileID.canonical.y*y%1]):d.texture.bind(s.LINEAR,s.CLAMP_TO_EDGE,s.LINEAR_MIPMAP_NEAREST),s.uniform2fv(c.uniforms.u_tl_parent,x||[0,0]),s.uniform1f(c.uniforms.u_scale_parent,y||1),s.uniform1f(c.uniforms.u_fade_t,m.mix),s.uniform1f(c.uniforms.u_opacity,m.opacity*r.paint.get(\\\"raster-opacity\\\")),l instanceof tt){var b=l.boundsBuffer;l.boundsVAO.bind(o,c,b,[]),s.drawArrays(s.TRIANGLE_STRIP,0,b.length)}else if(d.maskedBoundsBuffer&&d.maskedIndexBuffer&&d.segments)c.draw(o,s.TRIANGLES,r.id,d.maskedBoundsBuffer,d.maskedIndexBuffer,d.segments);else{var _=t.rasterBoundsBuffer;t.rasterBoundsVAO.bind(o,c,_,[]),s.drawArrays(s.TRIANGLE_STRIP,0,_.length)}}}},background:function(t,e,r){var n=r.paint.get(\\\"background-color\\\"),i=r.paint.get(\\\"background-opacity\\\");if(0!==i){var a=t.context,o=a.gl,s=t.transform,l=s.tileSize,c=r.paint.get(\\\"background-pattern\\\"),u=c||1!==n.a||1!==i?\\\"translucent\\\":\\\"opaque\\\";if(t.renderPass===u){var f;if(a.setStencilMode(qt.disabled),a.setDepthMode(t.depthModeForSublayer(0,\\\"opaque\\\"===u?Ht.ReadWrite:Ht.ReadOnly)),a.setColorMode(t.colorModeForRenderPass()),c){if(dr(c,t))return;f=t.useProgram(\\\"backgroundPattern\\\"),gr(c,t,f),t.tileExtentPatternVAO.bind(a,f,t.tileExtentBuffer,[])}else f=t.useProgram(\\\"background\\\"),o.uniform4fv(f.uniforms.u_color,[n.r,n.g,n.b,n.a]),t.tileExtentVAO.bind(a,f,t.tileExtentBuffer,[]);o.uniform1f(f.uniforms.u_opacity,i);for(var h=0,p=s.coveringTiles({tileSize:l});h<p.length;h+=1){var d=p[h];c&&vr({tileID:d,tileSize:l},t,f),o.uniformMatrix4fv(f.uniforms.u_matrix,!1,t.transform.calculatePosMatrix(d.toUnwrapped())),o.drawArrays(o.TRIANGLE_STRIP,0,t.tileExtentBuffer.length)}}}},debug:function(t,e,r){for(var n=0;n<r.length;n++)Er(t,e,r[n])}},zr=function(e,r){this.context=new Yt(e),this.transform=r,this._tileTextures={},this.setup(),this.numSublayers=Wt.maxUnderzooming+Wt.maxOverzooming+1,this.depthEpsilon=1/Math.pow(2,16),this.depthRboNeedsClear=!0,this.emptyProgramConfiguration=new t.default$24,this.crossTileSymbolIndex=new We};function Or(t,e){if(t.row>e.row){var r=t;t=e,e=r}return{x0:t.column,y0:t.row,x1:e.column,y1:e.row,dx:e.column-t.column,dy:e.row-t.row}}function Ir(t,e,r,n,i){var a=Math.max(r,Math.floor(e.y0)),o=Math.min(n,Math.ceil(e.y1));if(t.x0===e.x0&&t.y0===e.y0?t.x0+e.dy/t.dy*t.dx<e.x1:t.x1-e.dy/t.dy*t.dx<e.x0){var s=t;t=e,e=s}for(var l=t.dx/t.dy,c=e.dx/e.dy,u=t.dx>0,f=e.dx<0,h=a;h<o;h++){var p=l*Math.max(0,Math.min(t.dy,h+u-t.y0))+t.x0,d=c*Math.max(0,Math.min(e.dy,h+f-e.y0))+e.x0;i(Math.floor(d),Math.ceil(p),h)}}function Dr(t,e,r,n,i,a){var o,s=Or(t,e),l=Or(e,r),c=Or(r,t);s.dy>l.dy&&(o=s,s=l,l=o),s.dy>c.dy&&(o=s,s=c,c=o),l.dy>c.dy&&(o=l,l=c,c=o),s.dy&&Ir(c,s,n,i,a),l.dy&&Ir(c,l,n,i,a)}zr.prototype.resize=function(t,e){var r=this.context.gl;if(this.width=t*a.devicePixelRatio,this.height=e*a.devicePixelRatio,this.context.viewport.set([0,0,this.width,this.height]),this.style)for(var n=0,i=this.style._order;n<i.length;n+=1){var o=i[n];this.style._layers[o].resize()}this.depthRbo&&(r.deleteRenderbuffer(this.depthRbo),this.depthRbo=null)},zr.prototype.setup=function(){var e=this.context,r=new t.PosArray;r.emplaceBack(0,0),r.emplaceBack(t.default$8,0),r.emplaceBack(0,t.default$8),r.emplaceBack(t.default$8,t.default$8),this.tileExtentBuffer=e.createVertexBuffer(r,Ke.members),this.tileExtentVAO=new Q,this.tileExtentPatternVAO=new Q;var n=new t.PosArray;n.emplaceBack(0,0),n.emplaceBack(t.default$8,0),n.emplaceBack(t.default$8,t.default$8),n.emplaceBack(0,t.default$8),n.emplaceBack(0,0),this.debugBuffer=e.createVertexBuffer(n,Ke.members),this.debugVAO=new Q;var i=new t.RasterBoundsArray;i.emplaceBack(0,0,0,0),i.emplaceBack(t.default$8,0,t.default$8,0),i.emplaceBack(0,t.default$8,0,t.default$8),i.emplaceBack(t.default$8,t.default$8,t.default$8,t.default$8),this.rasterBoundsBuffer=e.createVertexBuffer(i,K.members),this.rasterBoundsVAO=new Q;var a=new t.PosArray;a.emplaceBack(0,0),a.emplaceBack(1,0),a.emplaceBack(0,1),a.emplaceBack(1,1),this.viewportBuffer=e.createVertexBuffer(a,Ke.members),this.viewportVAO=new Q},zr.prototype.clearStencil=function(){var e=this.context,r=e.gl;e.setColorMode(Gt.disabled),e.setDepthMode(Ht.disabled),e.setStencilMode(new qt({func:r.ALWAYS,mask:0},0,255,r.ZERO,r.ZERO,r.ZERO));var n=t.mat4.create();t.mat4.ortho(n,0,this.width,this.height,0,0,1),t.mat4.scale(n,n,[r.drawingBufferWidth,r.drawingBufferHeight,0]);var i=this.useProgram(\\\"clippingMask\\\");r.uniformMatrix4fv(i.uniforms.u_matrix,!1,n),this.viewportVAO.bind(e,i,this.viewportBuffer,[]),r.drawArrays(r.TRIANGLE_STRIP,0,4)},zr.prototype._renderTileClippingMasks=function(t){var e=this.context,r=e.gl;e.setColorMode(Gt.disabled),e.setDepthMode(Ht.disabled);var n=1;this._tileClippingMaskIDs={};for(var i=0,a=t;i<a.length;i+=1){var o=a[i],s=this._tileClippingMaskIDs[o.key]=n++;e.setStencilMode(new qt({func:r.ALWAYS,mask:0},s,255,r.KEEP,r.KEEP,r.REPLACE));var l=this.useProgram(\\\"clippingMask\\\");r.uniformMatrix4fv(l.uniforms.u_matrix,!1,o.posMatrix),this.tileExtentVAO.bind(this.context,l,this.tileExtentBuffer,[]),r.drawArrays(r.TRIANGLE_STRIP,0,this.tileExtentBuffer.length)}},zr.prototype.stencilModeForClipping=function(t){var e=this.context.gl;return new qt({func:e.EQUAL,mask:255},this._tileClippingMaskIDs[t.key],0,e.KEEP,e.KEEP,e.REPLACE)},zr.prototype.colorModeForRenderPass=function(){var e=this.context.gl;return this._showOverdrawInspector?new Gt([e.CONSTANT_COLOR,e.ONE],new t.default$6(1/8,1/8,1/8,0),[!0,!0,!0,!0]):\\\"opaque\\\"===this.renderPass?Gt.unblended:Gt.alphaBlended},zr.prototype.depthModeForSublayer=function(t,e,r){var n=1-((1+this.currentLayer)*this.numSublayers+t)*this.depthEpsilon,i=n-1+this.depthRange;return new Ht(r||this.context.gl.LEQUAL,e,[i,n])},zr.prototype.render=function(e,r){var n=this;for(var i in this.style=e,this.options=r,this.lineAtlas=e.lineAtlas,this.imageManager=e.imageManager,this.glyphManager=e.glyphManager,this.symbolFadeChange=e.placement.symbolFadeChange(a.now()),e.sourceCaches){var o=n.style.sourceCaches[i];o.used&&o.prepare(n.context)}var s=this.style._order,l=t.filterObject(this.style.sourceCaches,function(t){return\\\"raster\\\"===t.getSource().type||\\\"raster-dem\\\"===t.getSource().type}),c=function(e){var r=l[e];!function(e,r){for(var n=e.sort(function(t,e){return t.tileID.isLessThan(e.tileID)?-1:e.tileID.isLessThan(t.tileID)?1:0}),i=0;i<n.length;i++){var a={},o=n[i],s=n.slice(i+1);ar(o.tileID.wrapped(),o.tileID,s,new t.OverscaledTileID(0,o.tileID.wrap+1,0,0,0),a),o.setMask(a,r)}}(r.getVisibleCoordinates().map(function(t){return r.getTile(t)}),n.context)};for(var u in l)c(u);this.renderPass=\\\"offscreen\\\";var f,h=[];this.depthRboNeedsClear=!0;for(var p=0;p<s.length;p++){var d=n.style._layers[s[p]];d.hasOffscreenPass()&&!d.isHidden(n.transform.zoom)&&(d.source!==(f&&f.id)&&(h=[],(f=n.style.sourceCaches[d.source])&&(h=f.getVisibleCoordinates()).reverse()),h.length&&n.renderLayer(n,f,d,h))}this.context.bindFramebuffer.set(null),this.context.clear({color:r.showOverdrawInspector?t.default$6.black:t.default$6.transparent,depth:1}),this._showOverdrawInspector=r.showOverdrawInspector,this.depthRange=(e._order.length+2)*this.numSublayers*this.depthEpsilon,this.renderPass=\\\"opaque\\\";var g,v=[];for(this.currentLayer=s.length-1,this.currentLayer;this.currentLayer>=0;this.currentLayer--){var m=n.style._layers[s[n.currentLayer]];m.source!==(g&&g.id)&&(v=[],(g=n.style.sourceCaches[m.source])&&(n.clearStencil(),v=g.getVisibleCoordinates(),g.getSource().isTileClipped&&n._renderTileClippingMasks(v))),n.renderLayer(n,g,m,v)}this.renderPass=\\\"translucent\\\";var y,x=[];for(this.currentLayer=0,this.currentLayer;this.currentLayer<s.length;this.currentLayer++){var b=n.style._layers[s[n.currentLayer]];b.source!==(y&&y.id)&&(x=[],(y=n.style.sourceCaches[b.source])&&(n.clearStencil(),x=y.getVisibleCoordinates(),y.getSource().isTileClipped&&n._renderTileClippingMasks(x)),x.reverse()),n.renderLayer(n,y,b,x)}if(this.options.showTileBoundaries){var _=this.style.sourceCaches[Object.keys(this.style.sourceCaches)[0]];_&&Lr.debug(this,_,_.getVisibleCoordinates())}},zr.prototype.setupOffscreenDepthRenderbuffer=function(){var t=this.context;this.depthRbo||(this.depthRbo=t.createRenderbuffer(t.gl.DEPTH_COMPONENT16,this.width,this.height))},zr.prototype.renderLayer=function(t,e,r,n){r.isHidden(this.transform.zoom)||(\\\"background\\\"===r.type||n.length)&&(this.id=r.id,Lr[r.type](t,e,r,n))},zr.prototype.translatePosMatrix=function(e,r,n,i,a){if(!n[0]&&!n[1])return e;var o=a?\\\"map\\\"===i?this.transform.angle:0:\\\"viewport\\\"===i?-this.transform.angle:0;if(o){var s=Math.sin(o),l=Math.cos(o);n=[n[0]*l-n[1]*s,n[0]*s+n[1]*l]}var c=[a?n[0]:Me(r,n[0],this.transform.zoom),a?n[1]:Me(r,n[1],this.transform.zoom),0],u=new Float32Array(16);return t.mat4.translate(u,e,c),u},zr.prototype.saveTileTexture=function(t){var e=this._tileTextures[t.size[0]];e?e.push(t):this._tileTextures[t.size[0]]=[t]},zr.prototype.getTileTexture=function(t){var e=this._tileTextures[t];return e&&e.length>0?e.pop():null},zr.prototype._createProgramCached=function(t,e){this.cache=this.cache||{};var r=\\\"\\\"+t+(e.cacheKey||\\\"\\\")+(this._showOverdrawInspector?\\\"/overdraw\\\":\\\"\\\");return this.cache[r]||(this.cache[r]=new ir(this.context,nr[t],e,this._showOverdrawInspector)),this.cache[r]},zr.prototype.useProgram=function(t,e){var r=this._createProgramCached(t,e||this.emptyProgramConfiguration);return this.context.program.set(r.program),r};var Pr=t.default$20.vec4,Rr=t.default$20.mat4,Fr=t.default$20.mat2,Br=function(t,e,r){this.tileSize=512,this._renderWorldCopies=void 0===r||r,this._minZoom=t||0,this._maxZoom=e||22,this.latRange=[-85.05113,85.05113],this.width=0,this.height=0,this._center=new G(0,0),this.zoom=0,this.angle=0,this._fov=.6435011087932844,this._pitch=0,this._unmodified=!0,this._posMatrixCache={},this._alignedPosMatrixCache={}},Nr={minZoom:{configurable:!0},maxZoom:{configurable:!0},renderWorldCopies:{configurable:!0},worldSize:{configurable:!0},centerPoint:{configurable:!0},size:{configurable:!0},bearing:{configurable:!0},pitch:{configurable:!0},fov:{configurable:!0},zoom:{configurable:!0},center:{configurable:!0},unmodified:{configurable:!0},x:{configurable:!0},y:{configurable:!0},point:{configurable:!0}};Br.prototype.clone=function(){var t=new Br(this._minZoom,this._maxZoom,this._renderWorldCopies);return t.tileSize=this.tileSize,t.latRange=this.latRange,t.width=this.width,t.height=this.height,t._center=this._center,t.zoom=this.zoom,t.angle=this.angle,t._fov=this._fov,t._pitch=this._pitch,t._unmodified=this._unmodified,t._calcMatrices(),t},Nr.minZoom.get=function(){return this._minZoom},Nr.minZoom.set=function(t){this._minZoom!==t&&(this._minZoom=t,this.zoom=Math.max(this.zoom,t))},Nr.maxZoom.get=function(){return this._maxZoom},Nr.maxZoom.set=function(t){this._maxZoom!==t&&(this._maxZoom=t,this.zoom=Math.min(this.zoom,t))},Nr.renderWorldCopies.get=function(){return this._renderWorldCopies},Nr.renderWorldCopies.set=function(t){void 0===t?t=!0:null===t&&(t=!1),this._renderWorldCopies=t},Nr.worldSize.get=function(){return this.tileSize*this.scale},Nr.centerPoint.get=function(){return this.size._div(2)},Nr.size.get=function(){return new t.default$1(this.width,this.height)},Nr.bearing.get=function(){return-this.angle/Math.PI*180},Nr.bearing.set=function(e){var r=-t.wrap(e,-180,180)*Math.PI/180;this.angle!==r&&(this._unmodified=!1,this.angle=r,this._calcMatrices(),this.rotationMatrix=Fr.create(),Fr.rotate(this.rotationMatrix,this.rotationMatrix,this.angle))},Nr.pitch.get=function(){return this._pitch/Math.PI*180},Nr.pitch.set=function(e){var r=t.clamp(e,0,60)/180*Math.PI;this._pitch!==r&&(this._unmodified=!1,this._pitch=r,this._calcMatrices())},Nr.fov.get=function(){return this._fov/Math.PI*180},Nr.fov.set=function(t){t=Math.max(.01,Math.min(60,t)),this._fov!==t&&(this._unmodified=!1,this._fov=t/180*Math.PI,this._calcMatrices())},Nr.zoom.get=function(){return this._zoom},Nr.zoom.set=function(t){var e=Math.min(Math.max(t,this.minZoom),this.maxZoom);this._zoom!==e&&(this._unmodified=!1,this._zoom=e,this.scale=this.zoomScale(e),this.tileZoom=Math.floor(e),this.zoomFraction=e-this.tileZoom,this._constrain(),this._calcMatrices())},Nr.center.get=function(){return this._center},Nr.center.set=function(t){t.lat===this._center.lat&&t.lng===this._center.lng||(this._unmodified=!1,this._center=t,this._constrain(),this._calcMatrices())},Br.prototype.coveringZoomLevel=function(t){return(t.roundZoom?Math.round:Math.floor)(this.zoom+this.scaleZoom(this.tileSize/t.tileSize))},Br.prototype.getVisibleUnwrappedCoordinates=function(e){var r=this.pointCoordinate(new t.default$1(0,0),0),n=this.pointCoordinate(new t.default$1(this.width,0),0),i=Math.floor(r.column),a=Math.floor(n.column),o=[new t.UnwrappedTileID(0,e)];if(this._renderWorldCopies)for(var s=i;s<=a;s++)0!==s&&o.push(new t.UnwrappedTileID(s,e));return o},Br.prototype.coveringTiles=function(e){var r=this.coveringZoomLevel(e),n=r;if(void 0!==e.minzoom&&r<e.minzoom)return[];void 0!==e.maxzoom&&r>e.maxzoom&&(r=e.maxzoom);var i=this.pointCoordinate(this.centerPoint,r),a=new t.default$1(i.column-.5,i.row-.5);return function(e,r,n,i){void 0===i&&(i=!0);var a=1<<e,o={};function s(r,s,l){var c,u,f,h;if(l>=0&&l<=a)for(c=r;c<s;c++)u=Math.floor(c/a),f=(c%a+a)%a,0!==u&&!0!==i||(h=new t.OverscaledTileID(n,u,e,f,l),o[h.key]=h)}return Dr(r[0],r[1],r[2],0,a,s),Dr(r[2],r[3],r[0],0,a,s),Object.keys(o).map(function(t){return o[t]})}(r,[this.pointCoordinate(new t.default$1(0,0),r),this.pointCoordinate(new t.default$1(this.width,0),r),this.pointCoordinate(new t.default$1(this.width,this.height),r),this.pointCoordinate(new t.default$1(0,this.height),r)],e.reparseOverscaled?n:r,this._renderWorldCopies).sort(function(t,e){return a.dist(t.canonical)-a.dist(e.canonical)})},Br.prototype.resize=function(t,e){this.width=t,this.height=e,this.pixelsToGLUnits=[2/t,-2/e],this._constrain(),this._calcMatrices()},Nr.unmodified.get=function(){return this._unmodified},Br.prototype.zoomScale=function(t){return Math.pow(2,t)},Br.prototype.scaleZoom=function(t){return Math.log(t)/Math.LN2},Br.prototype.project=function(e){return new t.default$1(this.lngX(e.lng),this.latY(e.lat))},Br.prototype.unproject=function(t){return new G(this.xLng(t.x),this.yLat(t.y))},Nr.x.get=function(){return this.lngX(this.center.lng)},Nr.y.get=function(){return this.latY(this.center.lat)},Nr.point.get=function(){return new t.default$1(this.x,this.y)},Br.prototype.lngX=function(t){return(180+t)*this.worldSize/360},Br.prototype.latY=function(t){return(180-180/Math.PI*Math.log(Math.tan(Math.PI/4+t*Math.PI/360)))*this.worldSize/360},Br.prototype.xLng=function(t){return 360*t/this.worldSize-180},Br.prototype.yLat=function(t){var e=180-360*t/this.worldSize;return 360/Math.PI*Math.atan(Math.exp(e*Math.PI/180))-90},Br.prototype.setLocationAtPoint=function(t,e){var r=this.pointCoordinate(e)._sub(this.pointCoordinate(this.centerPoint));this.center=this.coordinateLocation(this.locationCoordinate(t)._sub(r)),this._renderWorldCopies&&(this.center=this.center.wrap())},Br.prototype.locationPoint=function(t){return this.coordinatePoint(this.locationCoordinate(t))},Br.prototype.pointLocation=function(t){return this.coordinateLocation(this.pointCoordinate(t))},Br.prototype.locationCoordinate=function(e){return new t.default$17(this.lngX(e.lng)/this.tileSize,this.latY(e.lat)/this.tileSize,this.zoom).zoomTo(this.tileZoom)},Br.prototype.coordinateLocation=function(t){var e=t.zoomTo(this.zoom);return new G(this.xLng(e.column*this.tileSize),this.yLat(e.row*this.tileSize))},Br.prototype.pointCoordinate=function(e,r){void 0===r&&(r=this.tileZoom);var n=[e.x,e.y,0,1],i=[e.x,e.y,1,1];Pr.transformMat4(n,n,this.pixelMatrixInverse),Pr.transformMat4(i,i,this.pixelMatrixInverse);var a=n[3],o=i[3],s=n[0]/a,l=i[0]/o,c=n[1]/a,u=i[1]/o,f=n[2]/a,h=i[2]/o,p=f===h?0:(0-f)/(h-f);return new t.default$17(t.number(s,l,p)/this.tileSize,t.number(c,u,p)/this.tileSize,this.zoom)._zoomTo(r)},Br.prototype.coordinatePoint=function(e){var r=e.zoomTo(this.zoom),n=[r.column*this.tileSize,r.row*this.tileSize,0,1];return Pr.transformMat4(n,n,this.pixelMatrix),new t.default$1(n[0]/n[3],n[1]/n[3])},Br.prototype.calculatePosMatrix=function(e,r){void 0===r&&(r=!1);var n=e.key,i=r?this._alignedPosMatrixCache:this._posMatrixCache;if(i[n])return i[n];var a=e.canonical,o=this.worldSize/this.zoomScale(a.z),s=a.x+Math.pow(2,a.z)*e.wrap,l=Rr.identity(new Float64Array(16));return Rr.translate(l,l,[s*o,a.y*o,0]),Rr.scale(l,l,[o/t.default$8,o/t.default$8,1]),Rr.multiply(l,r?this.alignedProjMatrix:this.projMatrix,l),i[n]=new Float32Array(l),i[n]},Br.prototype._constrain=function(){if(this.center&&this.width&&this.height&&!this._constraining){this._constraining=!0;var e,r,n,i,a=-90,o=90,s=-180,l=180,c=this.size,u=this._unmodified;if(this.latRange){var f=this.latRange;a=this.latY(f[1]),e=(o=this.latY(f[0]))-a<c.y?c.y/(o-a):0}if(this.lngRange){var h=this.lngRange;s=this.lngX(h[0]),r=(l=this.lngX(h[1]))-s<c.x?c.x/(l-s):0}var p=Math.max(r||0,e||0);if(p)return this.center=this.unproject(new t.default$1(r?(l+s)/2:this.x,e?(o+a)/2:this.y)),this.zoom+=this.scaleZoom(p),this._unmodified=u,void(this._constraining=!1);if(this.latRange){var d=this.y,g=c.y/2;d-g<a&&(i=a+g),d+g>o&&(i=o-g)}if(this.lngRange){var v=this.x,m=c.x/2;v-m<s&&(n=s+m),v+m>l&&(n=l-m)}void 0===n&&void 0===i||(this.center=this.unproject(new t.default$1(void 0!==n?n:this.x,void 0!==i?i:this.y))),this._unmodified=u,this._constraining=!1}},Br.prototype._calcMatrices=function(){if(this.height){this.cameraToCenterDistance=.5/Math.tan(this._fov/2)*this.height;var t=this._fov/2,e=Math.PI/2+this._pitch,r=Math.sin(t)*this.cameraToCenterDistance/Math.sin(Math.PI-e-t),n=this.x,i=this.y,a=1.01*(Math.cos(Math.PI/2-this._pitch)*r+this.cameraToCenterDistance),o=new Float64Array(16);Rr.perspective(o,this._fov,this.width/this.height,1,a),Rr.scale(o,o,[1,-1,1]),Rr.translate(o,o,[0,0,-this.cameraToCenterDistance]),Rr.rotateX(o,o,this._pitch),Rr.rotateZ(o,o,this.angle),Rr.translate(o,o,[-n,-i,0]);var s=this.worldSize/(2*Math.PI*6378137*Math.abs(Math.cos(this.center.lat*(Math.PI/180))));Rr.scale(o,o,[1,1,s,1]),this.projMatrix=o;var l=this.width%2/2,c=this.height%2/2,u=Math.cos(this.angle),f=Math.sin(this.angle),h=n-Math.round(n)+u*l+f*c,p=i-Math.round(i)+u*c+f*l,d=new Float64Array(o);if(Rr.translate(d,d,[h>.5?h-1:h,p>.5?p-1:p,0]),this.alignedProjMatrix=d,o=Rr.create(),Rr.scale(o,o,[this.width/2,-this.height/2,1]),Rr.translate(o,o,[1,-1,0]),this.pixelMatrix=Rr.multiply(new Float64Array(16),o,this.projMatrix),!(o=Rr.invert(new Float64Array(16),this.pixelMatrix)))throw new Error(\\\"failed to invert matrix\\\");this.pixelMatrixInverse=o,this._posMatrixCache={},this._alignedPosMatrixCache={}}},Br.prototype.maxPitchScaleFactor=function(){if(!this.pixelMatrixInverse)return 1;var e=this.pointCoordinate(new t.default$1(0,0)).zoomTo(this.zoom),r=[e.column*this.tileSize,e.row*this.tileSize,0,1];return Pr.transformMat4(r,r,this.pixelMatrix)[3]/this.cameraToCenterDistance},Object.defineProperties(Br.prototype,Nr);var jr=function(){var e,r,n,i;t.bindAll([\\\"_onHashChange\\\",\\\"_updateHash\\\"],this),this._updateHash=(e=this._updateHashUnthrottled.bind(this),300,r=!1,n=0,i=function(){n=0,r&&(e(),n=setTimeout(i,300),r=!1)},function(){return r=!0,n||i(),n})};jr.prototype.addTo=function(e){return this._map=e,t.default.addEventListener(\\\"hashchange\\\",this._onHashChange,!1),this._map.on(\\\"moveend\\\",this._updateHash),this},jr.prototype.remove=function(){return t.default.removeEventListener(\\\"hashchange\\\",this._onHashChange,!1),this._map.off(\\\"moveend\\\",this._updateHash),clearTimeout(this._updateHash()),delete this._map,this},jr.prototype.getHashString=function(t){var e=this._map.getCenter(),r=Math.round(100*this._map.getZoom())/100,n=Math.ceil((r*Math.LN2+Math.log(512/360/.5))/Math.LN10),i=Math.pow(10,n),a=Math.round(e.lng*i)/i,o=Math.round(e.lat*i)/i,s=this._map.getBearing(),l=this._map.getPitch(),c=\\\"\\\";return c+=t?\\\"#/\\\"+a+\\\"/\\\"+o+\\\"/\\\"+r:\\\"#\\\"+r+\\\"/\\\"+o+\\\"/\\\"+a,(s||l)&&(c+=\\\"/\\\"+Math.round(10*s)/10),l&&(c+=\\\"/\\\"+Math.round(l)),c},jr.prototype._onHashChange=function(){var e=t.default.location.hash.replace(\\\"#\\\",\\\"\\\").split(\\\"/\\\");return e.length>=3&&(this._map.jumpTo({center:[+e[2],+e[1]],zoom:+e[0],bearing:+(e[3]||0),pitch:+(e[4]||0)}),!0)},jr.prototype._updateHashUnthrottled=function(){var e=this.getHashString();t.default.history.replaceState(t.default.history.state,\\\"\\\",e)};var Vr=function(e){function r(r,n,i,a){void 0===a&&(a={});var o=s.mousePos(n.getCanvasContainer(),i),l=n.unproject(o);e.call(this,r,t.extend({point:o,lngLat:l,originalEvent:i},a)),this._defaultPrevented=!1,this.target=n}e&&(r.__proto__=e),r.prototype=Object.create(e&&e.prototype),r.prototype.constructor=r;var n={defaultPrevented:{configurable:!0}};return r.prototype.preventDefault=function(){this._defaultPrevented=!0},n.defaultPrevented.get=function(){return this._defaultPrevented},Object.defineProperties(r.prototype,n),r}(t.Event),Ur=function(e){function r(r,n,i){var a=s.touchPos(n.getCanvasContainer(),i),o=a.map(function(t){return n.unproject(t)}),l=a.reduce(function(t,e,r,n){return t.add(e.div(n.length))},new t.default$1(0,0)),c=n.unproject(l);e.call(this,r,{points:a,point:l,lngLats:o,lngLat:c,originalEvent:i}),this._defaultPrevented=!1}e&&(r.__proto__=e),r.prototype=Object.create(e&&e.prototype),r.prototype.constructor=r;var n={defaultPrevented:{configurable:!0}};return r.prototype.preventDefault=function(){this._defaultPrevented=!0},n.defaultPrevented.get=function(){return this._defaultPrevented},Object.defineProperties(r.prototype,n),r}(t.Event),Hr=function(t){function e(e,r,n){t.call(this,e,{originalEvent:n}),this._defaultPrevented=!1}t&&(e.__proto__=t),e.prototype=Object.create(t&&t.prototype),e.prototype.constructor=e;var r={defaultPrevented:{configurable:!0}};return e.prototype.preventDefault=function(){this._defaultPrevented=!0},r.defaultPrevented.get=function(){return this._defaultPrevented},Object.defineProperties(e.prototype,r),e}(t.Event),qr=function(e){this._map=e,this._el=e.getCanvasContainer(),this._delta=0,t.bindAll([\\\"_onWheel\\\",\\\"_onTimeout\\\",\\\"_onScrollFrame\\\",\\\"_onScrollFinished\\\"],this)};qr.prototype.isEnabled=function(){return!!this._enabled},qr.prototype.isActive=function(){return!!this._active},qr.prototype.enable=function(t){this.isEnabled()||(this._enabled=!0,this._aroundCenter=t&&\\\"center\\\"===t.around)},qr.prototype.disable=function(){this.isEnabled()&&(this._enabled=!1)},qr.prototype.onWheel=function(e){if(this.isEnabled()){var r=e.deltaMode===t.default.WheelEvent.DOM_DELTA_LINE?40*e.deltaY:e.deltaY,n=a.now(),i=n-(this._lastWheelEventTime||0);this._lastWheelEventTime=n,0!==r&&r%4.000244140625==0?this._type=\\\"wheel\\\":0!==r&&Math.abs(r)<4?this._type=\\\"trackpad\\\":i>400?(this._type=null,this._lastValue=r,this._timeout=setTimeout(this._onTimeout,40,e)):this._type||(this._type=Math.abs(i*r)<200?\\\"trackpad\\\":\\\"wheel\\\",this._timeout&&(clearTimeout(this._timeout),this._timeout=null,r+=this._lastValue)),e.shiftKey&&r&&(r/=4),this._type&&(this._lastWheelEvent=e,this._delta-=r,this.isActive()||this._start(e)),e.preventDefault()}},qr.prototype._onTimeout=function(t){this._type=\\\"wheel\\\",this._delta-=this._lastValue,this.isActive()||this._start(t)},qr.prototype._start=function(e){if(this._delta){this._frameId&&(this._map._cancelRenderFrame(this._frameId),this._frameId=null),this._active=!0,this._map.fire(new t.Event(\\\"movestart\\\",{originalEvent:e})),this._map.fire(new t.Event(\\\"zoomstart\\\",{originalEvent:e})),this._finishTimeout&&clearTimeout(this._finishTimeout);var r=s.mousePos(this._el,e);this._around=G.convert(this._aroundCenter?this._map.getCenter():this._map.unproject(r)),this._aroundPoint=this._map.transform.locationPoint(this._around),this._frameId||(this._frameId=this._map._requestRenderFrame(this._onScrollFrame))}},qr.prototype._onScrollFrame=function(){var e=this;if(this._frameId=null,this.isActive()){var r=this._map.transform;if(0!==this._delta){var n=\\\"wheel\\\"===this._type&&Math.abs(this._delta)>4.000244140625?1/450:.01,i=2/(1+Math.exp(-Math.abs(this._delta*n)));this._delta<0&&0!==i&&(i=1/i);var o=\\\"number\\\"==typeof this._targetZoom?r.zoomScale(this._targetZoom):r.scale;this._targetZoom=Math.min(r.maxZoom,Math.max(r.minZoom,r.scaleZoom(o*i))),\\\"wheel\\\"===this._type&&(this._startZoom=r.zoom,this._easing=this._smoothOutEasing(200)),this._delta=0}var s=!1;if(\\\"wheel\\\"===this._type){var l=Math.min((a.now()-this._lastWheelEventTime)/200,1),c=this._easing(l);r.zoom=t.number(this._startZoom,this._targetZoom,c),l<1?this._frameId||(this._frameId=this._map._requestRenderFrame(this._onScrollFrame)):s=!0}else r.zoom=this._targetZoom,s=!0;r.setLocationAtPoint(this._around,this._aroundPoint),this._map.fire(new t.Event(\\\"move\\\",{originalEvent:this._lastWheelEvent})),this._map.fire(new t.Event(\\\"zoom\\\",{originalEvent:this._lastWheelEvent})),s&&(this._active=!1,this._finishTimeout=setTimeout(function(){e._map.fire(new t.Event(\\\"zoomend\\\",{originalEvent:e._lastWheelEvent})),e._map.fire(new t.Event(\\\"moveend\\\",{originalEvent:e._lastWheelEvent})),delete e._targetZoom},200))}},qr.prototype._smoothOutEasing=function(e){var r=t.ease;if(this._prevEase){var n=this._prevEase,i=(a.now()-n.start)/n.duration,o=n.easing(i+.01)-n.easing(i),s=.27/Math.sqrt(o*o+1e-4)*.01,l=Math.sqrt(.0729-s*s);r=t.bezier(s,l,.25,1)}return this._prevEase={start:a.now(),duration:e,easing:r},r};var Gr=function(e){this._map=e,this._el=e.getCanvasContainer(),this._container=e.getContainer(),t.bindAll([\\\"_onMouseMove\\\",\\\"_onMouseUp\\\",\\\"_onKeyDown\\\"],this)};Gr.prototype.isEnabled=function(){return!!this._enabled},Gr.prototype.isActive=function(){return!!this._active},Gr.prototype.enable=function(){this.isEnabled()||(this._enabled=!0)},Gr.prototype.disable=function(){this.isEnabled()&&(this._enabled=!1)},Gr.prototype.onMouseDown=function(e){this.isEnabled()&&e.shiftKey&&0===e.button&&(t.default.document.addEventListener(\\\"mousemove\\\",this._onMouseMove,!1),t.default.document.addEventListener(\\\"keydown\\\",this._onKeyDown,!1),t.default.document.addEventListener(\\\"mouseup\\\",this._onMouseUp,!1),s.disableDrag(),this._startPos=s.mousePos(this._el,e),this._active=!0)},Gr.prototype._onMouseMove=function(t){var e=this._startPos,r=s.mousePos(this._el,t);this._box||(this._box=s.create(\\\"div\\\",\\\"mapboxgl-boxzoom\\\",this._container),this._container.classList.add(\\\"mapboxgl-crosshair\\\"),this._fireEvent(\\\"boxzoomstart\\\",t));var n=Math.min(e.x,r.x),i=Math.max(e.x,r.x),a=Math.min(e.y,r.y),o=Math.max(e.y,r.y);s.setTransform(this._box,\\\"translate(\\\"+n+\\\"px,\\\"+a+\\\"px)\\\"),this._box.style.width=i-n+\\\"px\\\",this._box.style.height=o-a+\\\"px\\\"},Gr.prototype._onMouseUp=function(e){if(0===e.button){var r=this._startPos,n=s.mousePos(this._el,e),i=(new Y).extend(this._map.unproject(r)).extend(this._map.unproject(n));this._finish(),s.suppressClick(),r.x===n.x&&r.y===n.y?this._fireEvent(\\\"boxzoomcancel\\\",e):this._map.fitBounds(i,{linear:!0}).fire(new t.Event(\\\"boxzoomend\\\",{originalEvent:e,boxZoomBounds:i}))}},Gr.prototype._onKeyDown=function(t){27===t.keyCode&&(this._finish(),this._fireEvent(\\\"boxzoomcancel\\\",t))},Gr.prototype._finish=function(){this._active=!1,t.default.document.removeEventListener(\\\"mousemove\\\",this._onMouseMove,!1),t.default.document.removeEventListener(\\\"keydown\\\",this._onKeyDown,!1),t.default.document.removeEventListener(\\\"mouseup\\\",this._onMouseUp,!1),this._container.classList.remove(\\\"mapboxgl-crosshair\\\"),this._box&&(s.remove(this._box),this._box=null),s.enableDrag()},Gr.prototype._fireEvent=function(e,r){return this._map.fire(new t.Event(e,{originalEvent:r}))};var Yr=t.bezier(0,0,.25,1),Wr=function(e,r){this._map=e,this._el=r.element||e.getCanvasContainer(),this._state=\\\"disabled\\\",this._button=r.button||\\\"right\\\",this._bearingSnap=r.bearingSnap||0,this._pitchWithRotate=!1!==r.pitchWithRotate,t.bindAll([\\\"_onMouseMove\\\",\\\"_onMouseUp\\\",\\\"_onBlur\\\",\\\"_onDragFrame\\\"],this)};Wr.prototype.isEnabled=function(){return\\\"disabled\\\"!==this._state},Wr.prototype.isActive=function(){return\\\"active\\\"===this._state},Wr.prototype.enable=function(){this.isEnabled()||(this._state=\\\"enabled\\\")},Wr.prototype.disable=function(){if(this.isEnabled())switch(this._state){case\\\"active\\\":this._state=\\\"disabled\\\",this._unbind(),this._deactivate(),this._fireEvent(\\\"rotateend\\\"),this._pitchWithRotate&&this._fireEvent(\\\"pitchend\\\"),this._fireEvent(\\\"moveend\\\");break;case\\\"pending\\\":this._state=\\\"disabled\\\",this._unbind();break;default:this._state=\\\"disabled\\\"}},Wr.prototype.onMouseDown=function(e){if(\\\"enabled\\\"===this._state){if(\\\"right\\\"===this._button){if(this._eventButton=s.mouseButton(e),this._eventButton!==(e.ctrlKey?0:2))return}else{if(e.ctrlKey||0!==s.mouseButton(e))return;this._eventButton=0}s.disableDrag(),t.default.document.addEventListener(\\\"mousemove\\\",this._onMouseMove,{capture:!0}),t.default.document.addEventListener(\\\"mouseup\\\",this._onMouseUp),t.default.addEventListener(\\\"blur\\\",this._onBlur),this._state=\\\"pending\\\",this._inertia=[[a.now(),this._map.getBearing()]],this._previousPos=s.mousePos(this._el,e),this._center=this._map.transform.centerPoint,e.preventDefault()}},Wr.prototype._onMouseMove=function(t){this._lastMoveEvent=t,this._pos=s.mousePos(this._el,t),\\\"pending\\\"===this._state&&(this._state=\\\"active\\\",this._fireEvent(\\\"rotatestart\\\",t),this._fireEvent(\\\"movestart\\\",t),this._pitchWithRotate&&this._fireEvent(\\\"pitchstart\\\",t)),this._frameId||(this._frameId=this._map._requestRenderFrame(this._onDragFrame))},Wr.prototype._onDragFrame=function(){this._frameId=null;var t=this._lastMoveEvent;if(t){var e=this._map.transform,r=this._previousPos,n=this._pos,i=.8*(r.x-n.x),o=-.5*(r.y-n.y),s=e.bearing-i,l=e.pitch-o,c=this._inertia,u=c[c.length-1];this._drainInertiaBuffer(),c.push([a.now(),this._map._normalizeBearing(s,u[1])]),e.bearing=s,this._pitchWithRotate&&(this._fireEvent(\\\"pitch\\\",t),e.pitch=l),this._fireEvent(\\\"rotate\\\",t),this._fireEvent(\\\"move\\\",t),delete this._lastMoveEvent,this._previousPos=this._pos}},Wr.prototype._onMouseUp=function(t){if(s.mouseButton(t)===this._eventButton)switch(this._state){case\\\"active\\\":this._state=\\\"enabled\\\",s.suppressClick(),this._unbind(),this._deactivate(),this._inertialRotate(t);break;case\\\"pending\\\":this._state=\\\"enabled\\\",this._unbind()}},Wr.prototype._onBlur=function(t){switch(this._state){case\\\"active\\\":this._state=\\\"enabled\\\",this._unbind(),this._deactivate(),this._fireEvent(\\\"rotateend\\\",t),this._pitchWithRotate&&this._fireEvent(\\\"pitchend\\\",t),this._fireEvent(\\\"moveend\\\",t);break;case\\\"pending\\\":this._state=\\\"enabled\\\",this._unbind()}},Wr.prototype._unbind=function(){t.default.document.removeEventListener(\\\"mousemove\\\",this._onMouseMove,{capture:!0}),t.default.document.removeEventListener(\\\"mouseup\\\",this._onMouseUp),t.default.removeEventListener(\\\"blur\\\",this._onBlur),s.enableDrag()},Wr.prototype._deactivate=function(){this._frameId&&(this._map._cancelRenderFrame(this._frameId),this._frameId=null),delete this._lastMoveEvent,delete this._previousPos},Wr.prototype._inertialRotate=function(t){var e=this;this._fireEvent(\\\"rotateend\\\",t),this._drainInertiaBuffer();var r=this._map,n=r.getBearing(),i=this._inertia,a=function(){Math.abs(n)<e._bearingSnap?r.resetNorth({noMoveStart:!0},{originalEvent:t}):e._fireEvent(\\\"moveend\\\",t),e._pitchWithRotate&&e._fireEvent(\\\"pitchend\\\",t)};if(i.length<2)a();else{var o=i[0],s=i[i.length-1],l=i[i.length-2],c=r._normalizeBearing(n,l[1]),u=s[1]-o[1],f=u<0?-1:1,h=(s[0]-o[0])/1e3;if(0!==u&&0!==h){var p=Math.abs(u*(.25/h));p>180&&(p=180);var d=p/180;c+=f*p*(d/2),Math.abs(r._normalizeBearing(c,0))<this._bearingSnap&&(c=r._normalizeBearing(0,c)),r.rotateTo(c,{duration:1e3*d,easing:Yr,noMoveStart:!0},{originalEvent:t})}else a()}},Wr.prototype._fireEvent=function(e,r){return this._map.fire(new t.Event(e,r?{originalEvent:r}:{}))},Wr.prototype._drainInertiaBuffer=function(){for(var t=this._inertia,e=a.now();t.length>0&&e-t[0][0]>160;)t.shift()};var Xr=t.bezier(0,0,.3,1),Zr=function(e){this._map=e,this._el=e.getCanvasContainer(),this._state=\\\"disabled\\\",t.bindAll([\\\"_onMove\\\",\\\"_onMouseUp\\\",\\\"_onTouchEnd\\\",\\\"_onBlur\\\",\\\"_onDragFrame\\\"],this)};Zr.prototype.isEnabled=function(){return\\\"disabled\\\"!==this._state},Zr.prototype.isActive=function(){return\\\"active\\\"===this._state},Zr.prototype.enable=function(){this.isEnabled()||(this._el.classList.add(\\\"mapboxgl-touch-drag-pan\\\"),this._state=\\\"enabled\\\")},Zr.prototype.disable=function(){if(this.isEnabled())switch(this._el.classList.remove(\\\"mapboxgl-touch-drag-pan\\\"),this._state){case\\\"active\\\":this._state=\\\"disabled\\\",this._unbind(),this._deactivate(),this._fireEvent(\\\"dragend\\\"),this._fireEvent(\\\"moveend\\\");break;case\\\"pending\\\":this._state=\\\"disabled\\\",this._unbind();break;default:this._state=\\\"disabled\\\"}},Zr.prototype.onMouseDown=function(e){\\\"enabled\\\"===this._state&&(e.ctrlKey||0!==s.mouseButton(e)||(s.addEventListener(t.default.document,\\\"mousemove\\\",this._onMove,{capture:!0}),s.addEventListener(t.default.document,\\\"mouseup\\\",this._onMouseUp),this._start(e)))},Zr.prototype.onTouchStart=function(e){\\\"enabled\\\"===this._state&&(e.touches.length>1||(s.addEventListener(t.default.document,\\\"touchmove\\\",this._onMove,{capture:!0,passive:!1}),s.addEventListener(t.default.document,\\\"touchend\\\",this._onTouchEnd),this._start(e)))},Zr.prototype._start=function(e){t.default.addEventListener(\\\"blur\\\",this._onBlur),this._state=\\\"pending\\\",this._previousPos=s.mousePos(this._el,e),this._inertia=[[a.now(),this._previousPos]]},Zr.prototype._onMove=function(t){this._lastMoveEvent=t,t.preventDefault(),this._pos=s.mousePos(this._el,t),this._drainInertiaBuffer(),this._inertia.push([a.now(),this._pos]),\\\"pending\\\"===this._state&&(this._state=\\\"active\\\",this._fireEvent(\\\"dragstart\\\",t),this._fireEvent(\\\"movestart\\\",t)),this._frameId||(this._frameId=this._map._requestRenderFrame(this._onDragFrame))},Zr.prototype._onDragFrame=function(){this._frameId=null;var t=this._lastMoveEvent;if(t){var e=this._map.transform;e.setLocationAtPoint(e.pointLocation(this._previousPos),this._pos),this._fireEvent(\\\"drag\\\",t),this._fireEvent(\\\"move\\\",t),this._previousPos=this._pos,delete this._lastMoveEvent}},Zr.prototype._onMouseUp=function(t){if(0===s.mouseButton(t))switch(this._state){case\\\"active\\\":this._state=\\\"enabled\\\",s.suppressClick(),this._unbind(),this._deactivate(),this._inertialPan(t);break;case\\\"pending\\\":this._state=\\\"enabled\\\",this._unbind()}},Zr.prototype._onTouchEnd=function(t){switch(this._state){case\\\"active\\\":this._state=\\\"enabled\\\",this._unbind(),this._deactivate(),this._inertialPan(t);break;case\\\"pending\\\":this._state=\\\"enabled\\\",this._unbind()}},Zr.prototype._onBlur=function(t){switch(this._state){case\\\"active\\\":this._state=\\\"enabled\\\",this._unbind(),this._deactivate(),this._fireEvent(\\\"dragend\\\",t),this._fireEvent(\\\"moveend\\\",t);break;case\\\"pending\\\":this._state=\\\"enabled\\\",this._unbind()}},Zr.prototype._unbind=function(){s.removeEventListener(t.default.document,\\\"touchmove\\\",this._onMove,{capture:!0,passive:!1}),s.removeEventListener(t.default.document,\\\"touchend\\\",this._onTouchEnd),s.removeEventListener(t.default.document,\\\"mousemove\\\",this._onMove,{capture:!0}),s.removeEventListener(t.default.document,\\\"mouseup\\\",this._onMouseUp),s.removeEventListener(t.default,\\\"blur\\\",this._onBlur)},Zr.prototype._deactivate=function(){this._frameId&&(this._map._cancelRenderFrame(this._frameId),this._frameId=null),delete this._lastMoveEvent,delete this._previousPos,delete this._pos},Zr.prototype._inertialPan=function(t){this._fireEvent(\\\"dragend\\\",t),this._drainInertiaBuffer();var e=this._inertia;if(e.length<2)this._fireEvent(\\\"moveend\\\",t);else{var r=e[e.length-1],n=e[0],i=r[1].sub(n[1]),a=(r[0]-n[0])/1e3;if(0===a||r[1].equals(n[1]))this._fireEvent(\\\"moveend\\\",t);else{var o=i.mult(.3/a),s=o.mag();s>1400&&(s=1400,o._unit()._mult(s));var l=s/750,c=o.mult(-l/2);this._map.panBy(c,{duration:1e3*l,easing:Xr,noMoveStart:!0},{originalEvent:t})}}},Zr.prototype._fireEvent=function(e,r){return this._map.fire(new t.Event(e,r?{originalEvent:r}:{}))},Zr.prototype._drainInertiaBuffer=function(){for(var t=this._inertia,e=a.now();t.length>0&&e-t[0][0]>160;)t.shift()};var $r=function(e){this._map=e,this._el=e.getCanvasContainer(),t.bindAll([\\\"_onKeyDown\\\"],this)};function Jr(t){return t*(2-t)}$r.prototype.isEnabled=function(){return!!this._enabled},$r.prototype.enable=function(){this.isEnabled()||(this._el.addEventListener(\\\"keydown\\\",this._onKeyDown,!1),this._enabled=!0)},$r.prototype.disable=function(){this.isEnabled()&&(this._el.removeEventListener(\\\"keydown\\\",this._onKeyDown),this._enabled=!1)},$r.prototype._onKeyDown=function(t){if(!(t.altKey||t.ctrlKey||t.metaKey)){var e=0,r=0,n=0,i=0,a=0;switch(t.keyCode){case 61:case 107:case 171:case 187:e=1;break;case 189:case 109:case 173:e=-1;break;case 37:t.shiftKey?r=-1:(t.preventDefault(),i=-1);break;case 39:t.shiftKey?r=1:(t.preventDefault(),i=1);break;case 38:t.shiftKey?n=1:(t.preventDefault(),a=-1);break;case 40:t.shiftKey?n=-1:(a=1,t.preventDefault());break;default:return}var o=this._map,s=o.getZoom(),l={duration:300,delayEndEvents:500,easing:Jr,zoom:e?Math.round(s)+e*(t.shiftKey?2:1):s,bearing:o.getBearing()+15*r,pitch:o.getPitch()+10*n,offset:[100*-i,100*-a],center:o.getCenter()};o.easeTo(l,{originalEvent:t})}};var Kr=function(e){this._map=e,t.bindAll([\\\"_onDblClick\\\",\\\"_onZoomEnd\\\"],this)};Kr.prototype.isEnabled=function(){return!!this._enabled},Kr.prototype.isActive=function(){return!!this._active},Kr.prototype.enable=function(){this.isEnabled()||(this._enabled=!0)},Kr.prototype.disable=function(){this.isEnabled()&&(this._enabled=!1)},Kr.prototype.onTouchStart=function(t){var e=this;this.isEnabled()&&(t.points.length>1||(this._tapped?(clearTimeout(this._tapped),this._tapped=null,this._zoom(t)):this._tapped=setTimeout(function(){e._tapped=null},300)))},Kr.prototype.onDblClick=function(t){this.isEnabled()&&(t.originalEvent.preventDefault(),this._zoom(t))},Kr.prototype._zoom=function(t){this._active=!0,this._map.on(\\\"zoomend\\\",this._onZoomEnd),this._map.zoomTo(this._map.getZoom()+(t.originalEvent.shiftKey?-1:1),{around:t.lngLat},t)},Kr.prototype._onZoomEnd=function(){this._active=!1,this._map.off(\\\"zoomend\\\",this._onZoomEnd)};var Qr=t.bezier(0,0,.15,1),tn=function(e){this._map=e,this._el=e.getCanvasContainer(),t.bindAll([\\\"_onMove\\\",\\\"_onEnd\\\",\\\"_onTouchFrame\\\"],this)};tn.prototype.isEnabled=function(){return!!this._enabled},tn.prototype.enable=function(t){this.isEnabled()||(this._el.classList.add(\\\"mapboxgl-touch-zoom-rotate\\\"),this._enabled=!0,this._aroundCenter=!!t&&\\\"center\\\"===t.around)},tn.prototype.disable=function(){this.isEnabled()&&(this._el.classList.remove(\\\"mapboxgl-touch-zoom-rotate\\\"),this._enabled=!1)},tn.prototype.disableRotation=function(){this._rotationDisabled=!0},tn.prototype.enableRotation=function(){this._rotationDisabled=!1},tn.prototype.onStart=function(e){if(this.isEnabled()&&2===e.touches.length){var r=s.mousePos(this._el,e.touches[0]),n=s.mousePos(this._el,e.touches[1]);this._startVec=r.sub(n),this._gestureIntent=void 0,this._inertia=[],s.addEventListener(t.default.document,\\\"touchmove\\\",this._onMove,{passive:!1}),s.addEventListener(t.default.document,\\\"touchend\\\",this._onEnd)}},tn.prototype._getTouchEventData=function(t){var e=s.mousePos(this._el,t.touches[0]),r=s.mousePos(this._el,t.touches[1]),n=e.sub(r);return{vec:n,center:e.add(r).div(2),scale:n.mag()/this._startVec.mag(),bearing:this._rotationDisabled?0:180*n.angleWith(this._startVec)/Math.PI}},tn.prototype._onMove=function(e){if(2===e.touches.length){var r=this._getTouchEventData(e),n=r.vec,i=r.scale,a=r.bearing;if(!this._gestureIntent){var o=Math.abs(1-i)>.15;Math.abs(a)>10?this._gestureIntent=\\\"rotate\\\":o&&(this._gestureIntent=\\\"zoom\\\"),this._gestureIntent&&(this._map.fire(new t.Event(this._gestureIntent+\\\"start\\\",{originalEvent:e})),this._map.fire(new t.Event(\\\"movestart\\\",{originalEvent:e})),this._startVec=n)}this._lastTouchEvent=e,this._frameId||(this._frameId=this._map._requestRenderFrame(this._onTouchFrame)),e.preventDefault()}},tn.prototype._onTouchFrame=function(){this._frameId=null;var e=this._gestureIntent;if(e){var r=this._map.transform;this._startScale||(this._startScale=r.scale,this._startBearing=r.bearing);var n=this._getTouchEventData(this._lastTouchEvent),i=n.center,o=n.bearing,s=n.scale,l=r.pointLocation(i),c=r.locationPoint(l);\\\"rotate\\\"===e&&(r.bearing=this._startBearing+o),r.zoom=r.scaleZoom(this._startScale*s),r.setLocationAtPoint(l,c),this._map.fire(new t.Event(e,{originalEvent:this._lastTouchEvent})),this._map.fire(new t.Event(\\\"move\\\",{originalEvent:this._lastTouchEvent})),this._drainInertiaBuffer(),this._inertia.push([a.now(),s,i])}},tn.prototype._onEnd=function(e){s.removeEventListener(t.default.document,\\\"touchmove\\\",this._onMove,{passive:!1}),s.removeEventListener(t.default.document,\\\"touchend\\\",this._onEnd);var r=this._gestureIntent,n=this._startScale;if(this._frameId&&(this._map._cancelRenderFrame(this._frameId),this._frameId=null),delete this._gestureIntent,delete this._startScale,delete this._startBearing,delete this._lastTouchEvent,r){this._map.fire(new t.Event(r+\\\"end\\\",{originalEvent:e})),this._drainInertiaBuffer();var i=this._inertia,a=this._map;if(i.length<2)a.snapToNorth({},{originalEvent:e});else{var o=i[i.length-1],l=i[0],c=a.transform.scaleZoom(n*o[1]),u=a.transform.scaleZoom(n*l[1]),f=c-u,h=(o[0]-l[0])/1e3,p=o[2];if(0!==h&&c!==u){var d=.15*f/h;Math.abs(d)>2.5&&(d=d>0?2.5:-2.5);var g=1e3*Math.abs(d/(12*.15)),v=c+d*g/2e3;v<0&&(v=0),a.easeTo({zoom:v,duration:g,easing:Qr,around:this._aroundCenter?a.getCenter():a.unproject(p),noMoveStart:!0},{originalEvent:e})}else a.snapToNorth({},{originalEvent:e})}}},tn.prototype._drainInertiaBuffer=function(){for(var t=this._inertia,e=a.now();t.length>2&&e-t[0][0]>160;)t.shift()};var en={scrollZoom:qr,boxZoom:Gr,dragRotate:Wr,dragPan:Zr,keyboard:$r,doubleClickZoom:Kr,touchZoomRotate:tn},rn=function(e){function r(r,n){e.call(this),this._moving=!1,this._zooming=!1,this.transform=r,this._bearingSnap=n.bearingSnap,t.bindAll([\\\"_renderFrameCallback\\\"],this)}return e&&(r.__proto__=e),r.prototype=Object.create(e&&e.prototype),r.prototype.constructor=r,r.prototype.getCenter=function(){return this.transform.center},r.prototype.setCenter=function(t,e){return this.jumpTo({center:t},e)},r.prototype.panBy=function(e,r,n){return e=t.default$1.convert(e).mult(-1),this.panTo(this.transform.center,t.extend({offset:e},r),n)},r.prototype.panTo=function(e,r,n){return this.easeTo(t.extend({center:e},r),n)},r.prototype.getZoom=function(){return this.transform.zoom},r.prototype.setZoom=function(t,e){return this.jumpTo({zoom:t},e),this},r.prototype.zoomTo=function(e,r,n){return this.easeTo(t.extend({zoom:e},r),n)},r.prototype.zoomIn=function(t,e){return this.zoomTo(this.getZoom()+1,t,e),this},r.prototype.zoomOut=function(t,e){return this.zoomTo(this.getZoom()-1,t,e),this},r.prototype.getBearing=function(){return this.transform.bearing},r.prototype.setBearing=function(t,e){return this.jumpTo({bearing:t},e),this},r.prototype.rotateTo=function(e,r,n){return this.easeTo(t.extend({bearing:e},r),n)},r.prototype.resetNorth=function(e,r){return this.rotateTo(0,t.extend({duration:1e3},e),r),this},r.prototype.snapToNorth=function(t,e){return Math.abs(this.getBearing())<this._bearingSnap?this.resetNorth(t,e):this},r.prototype.getPitch=function(){return this.transform.pitch},r.prototype.setPitch=function(t,e){return this.jumpTo({pitch:t},e),this},r.prototype.fitBounds=function(e,r,n){if(\\\"number\\\"==typeof(r=t.extend({padding:{top:0,bottom:0,right:0,left:0},offset:[0,0],maxZoom:this.transform.maxZoom},r)).padding){var i=r.padding;r.padding={top:i,bottom:i,right:i,left:i}}if(!t.default$10(Object.keys(r.padding).sort(function(t,e){return t<e?-1:t>e?1:0}),[\\\"bottom\\\",\\\"left\\\",\\\"right\\\",\\\"top\\\"]))return t.warnOnce(\\\"options.padding must be a positive number, or an Object with keys 'bottom', 'left', 'right', 'top'\\\"),this;e=Y.convert(e);var a=[(r.padding.left-r.padding.right)/2,(r.padding.top-r.padding.bottom)/2],o=Math.min(r.padding.right,r.padding.left),s=Math.min(r.padding.top,r.padding.bottom);r.offset=[r.offset[0]+a[0],r.offset[1]+a[1]];var l=t.default$1.convert(r.offset),c=this.transform,u=c.project(e.getNorthWest()),f=c.project(e.getSouthEast()),h=f.sub(u),p=(c.width-2*o-2*Math.abs(l.x))/h.x,d=(c.height-2*s-2*Math.abs(l.y))/h.y;return d<0||p<0?(t.warnOnce(\\\"Map cannot fit within canvas with the given bounds, padding, and/or offset.\\\"),this):(r.center=c.unproject(u.add(f).div(2)),r.zoom=Math.min(c.scaleZoom(c.scale*Math.min(p,d)),r.maxZoom),r.bearing=0,r.linear?this.easeTo(r,n):this.flyTo(r,n))},r.prototype.jumpTo=function(e,r){this.stop();var n=this.transform,i=!1,a=!1,o=!1;return\\\"zoom\\\"in e&&n.zoom!==+e.zoom&&(i=!0,n.zoom=+e.zoom),void 0!==e.center&&(n.center=G.convert(e.center)),\\\"bearing\\\"in e&&n.bearing!==+e.bearing&&(a=!0,n.bearing=+e.bearing),\\\"pitch\\\"in e&&n.pitch!==+e.pitch&&(o=!0,n.pitch=+e.pitch),this.fire(new t.Event(\\\"movestart\\\",r)).fire(new t.Event(\\\"move\\\",r)),i&&this.fire(new t.Event(\\\"zoomstart\\\",r)).fire(new t.Event(\\\"zoom\\\",r)).fire(new t.Event(\\\"zoomend\\\",r)),a&&this.fire(new t.Event(\\\"rotatestart\\\",r)).fire(new t.Event(\\\"rotate\\\",r)).fire(new t.Event(\\\"rotateend\\\",r)),o&&this.fire(new t.Event(\\\"pitchstart\\\",r)).fire(new t.Event(\\\"pitch\\\",r)).fire(new t.Event(\\\"pitchend\\\",r)),this.fire(new t.Event(\\\"moveend\\\",r))},r.prototype.easeTo=function(e,r){var n=this;this.stop(),!1===(e=t.extend({offset:[0,0],duration:500,easing:t.ease},e)).animate&&(e.duration=0);var i=this.transform,a=this.getZoom(),o=this.getBearing(),s=this.getPitch(),l=\\\"zoom\\\"in e?+e.zoom:a,c=\\\"bearing\\\"in e?this._normalizeBearing(e.bearing,o):o,u=\\\"pitch\\\"in e?+e.pitch:s,f=i.centerPoint.add(t.default$1.convert(e.offset)),h=i.pointLocation(f),p=G.convert(e.center||h);this._normalizeCenter(p);var d,g,v=i.project(h),m=i.project(p).sub(v),y=i.zoomScale(l-a);return e.around&&(d=G.convert(e.around),g=i.locationPoint(d)),this._zooming=l!==a,this._rotating=o!==c,this._pitching=u!==s,this._prepareEase(r,e.noMoveStart),clearTimeout(this._easeEndTimeoutID),this._ease(function(e){if(n._zooming&&(i.zoom=t.number(a,l,e)),n._rotating&&(i.bearing=t.number(o,c,e)),n._pitching&&(i.pitch=t.number(s,u,e)),d)i.setLocationAtPoint(d,g);else{var h=i.zoomScale(i.zoom-a),p=l>a?Math.min(2,y):Math.max(.5,y),x=Math.pow(p,1-e),b=i.unproject(v.add(m.mult(e*x)).mult(h));i.setLocationAtPoint(i.renderWorldCopies?b.wrap():b,f)}n._fireMoveEvents(r)},function(){e.delayEndEvents?n._easeEndTimeoutID=setTimeout(function(){return n._afterEase(r)},e.delayEndEvents):n._afterEase(r)},e),this},r.prototype._prepareEase=function(e,r){this._moving=!0,r||this.fire(new t.Event(\\\"movestart\\\",e)),this._zooming&&this.fire(new t.Event(\\\"zoomstart\\\",e)),this._rotating&&this.fire(new t.Event(\\\"rotatestart\\\",e)),this._pitching&&this.fire(new t.Event(\\\"pitchstart\\\",e))},r.prototype._fireMoveEvents=function(e){this.fire(new t.Event(\\\"move\\\",e)),this._zooming&&this.fire(new t.Event(\\\"zoom\\\",e)),this._rotating&&this.fire(new t.Event(\\\"rotate\\\",e)),this._pitching&&this.fire(new t.Event(\\\"pitch\\\",e))},r.prototype._afterEase=function(e){var r=this._zooming,n=this._rotating,i=this._pitching;this._moving=!1,this._zooming=!1,this._rotating=!1,this._pitching=!1,r&&this.fire(new t.Event(\\\"zoomend\\\",e)),n&&this.fire(new t.Event(\\\"rotateend\\\",e)),i&&this.fire(new t.Event(\\\"pitchend\\\",e)),this.fire(new t.Event(\\\"moveend\\\",e))},r.prototype.flyTo=function(e,r){var n=this;this.stop(),e=t.extend({offset:[0,0],speed:1.2,curve:1.42,easing:t.ease},e);var i=this.transform,a=this.getZoom(),o=this.getBearing(),s=this.getPitch(),l=\\\"zoom\\\"in e?t.clamp(+e.zoom,i.minZoom,i.maxZoom):a,c=\\\"bearing\\\"in e?this._normalizeBearing(e.bearing,o):o,u=\\\"pitch\\\"in e?+e.pitch:s,f=i.zoomScale(l-a),h=i.centerPoint.add(t.default$1.convert(e.offset)),p=i.pointLocation(h),d=G.convert(e.center||p);this._normalizeCenter(d);var g=i.project(p),v=i.project(d).sub(g),m=e.curve,y=Math.max(i.width,i.height),x=y/f,b=v.mag();if(\\\"minZoom\\\"in e){var _=t.clamp(Math.min(e.minZoom,a,l),i.minZoom,i.maxZoom),w=y/i.zoomScale(_-a);m=Math.sqrt(w/b*2)}var k=m*m;function T(t){var e=(x*x-y*y+(t?-1:1)*k*k*b*b)/(2*(t?x:y)*k*b);return Math.log(Math.sqrt(e*e+1)-e)}function A(t){return(Math.exp(t)-Math.exp(-t))/2}function M(t){return(Math.exp(t)+Math.exp(-t))/2}var S=T(0),E=function(t){return M(S)/M(S+m*t)},C=function(t){return y*((M(S)*(A(e=S+m*t)/M(e))-A(S))/k)/b;var e},L=(T(1)-S)/m;if(Math.abs(b)<1e-6||!isFinite(L)){if(Math.abs(y-x)<1e-6)return this.easeTo(e,r);var z=x<y?-1:1;L=Math.abs(Math.log(x/y))/m,C=function(){return 0},E=function(t){return Math.exp(z*m*t)}}if(\\\"duration\\\"in e)e.duration=+e.duration;else{var O=\\\"screenSpeed\\\"in e?+e.screenSpeed/m:+e.speed;e.duration=1e3*L/O}return e.maxDuration&&e.duration>e.maxDuration&&(e.duration=0),this._zooming=!0,this._rotating=o!==c,this._pitching=u!==s,this._prepareEase(r,!1),this._ease(function(e){var l=e*L,f=1/E(l);i.zoom=a+i.scaleZoom(f),n._rotating&&(i.bearing=t.number(o,c,e)),n._pitching&&(i.pitch=t.number(s,u,e));var p=i.unproject(g.add(v.mult(C(l))).mult(f));i.setLocationAtPoint(i.renderWorldCopies?p.wrap():p,h),n._fireMoveEvents(r)},function(){return n._afterEase(r)},e),this},r.prototype.isEasing=function(){return!!this._easeFrameId},r.prototype.stop=function(){if(this._easeFrameId&&(this._cancelRenderFrame(this._easeFrameId),delete this._easeFrameId,delete this._onEaseFrame),this._onEaseEnd){var t=this._onEaseEnd;delete this._onEaseEnd,t.call(this)}return this},r.prototype._ease=function(t,e,r){!1===r.animate||0===r.duration?(t(1),e()):(this._easeStart=a.now(),this._easeOptions=r,this._onEaseFrame=t,this._onEaseEnd=e,this._easeFrameId=this._requestRenderFrame(this._renderFrameCallback))},r.prototype._renderFrameCallback=function(){var t=Math.min((a.now()-this._easeStart)/this._easeOptions.duration,1);this._onEaseFrame(this._easeOptions.easing(t)),t<1?this._easeFrameId=this._requestRenderFrame(this._renderFrameCallback):this.stop()},r.prototype._normalizeBearing=function(e,r){e=t.wrap(e,-180,180);var n=Math.abs(e-r);return Math.abs(e-360-r)<n&&(e-=360),Math.abs(e+360-r)<n&&(e+=360),e},r.prototype._normalizeCenter=function(t){var e=this.transform;if(e.renderWorldCopies&&!e.lngRange){var r=t.lng-e.center.lng;t.lng+=r>180?-360:r<-180?360:0}},r}(t.Evented),nn=function(e){void 0===e&&(e={}),this.options=e,t.bindAll([\\\"_updateEditLink\\\",\\\"_updateData\\\",\\\"_updateCompact\\\"],this)};nn.prototype.getDefaultPosition=function(){return\\\"bottom-right\\\"},nn.prototype.onAdd=function(t){var e=this.options&&this.options.compact;return this._map=t,this._container=s.create(\\\"div\\\",\\\"mapboxgl-ctrl mapboxgl-ctrl-attrib\\\"),e&&this._container.classList.add(\\\"mapboxgl-compact\\\"),this._updateAttributions(),this._updateEditLink(),this._map.on(\\\"sourcedata\\\",this._updateData),this._map.on(\\\"moveend\\\",this._updateEditLink),void 0===e&&(this._map.on(\\\"resize\\\",this._updateCompact),this._updateCompact()),this._container},nn.prototype.onRemove=function(){s.remove(this._container),this._map.off(\\\"sourcedata\\\",this._updateData),this._map.off(\\\"moveend\\\",this._updateEditLink),this._map.off(\\\"resize\\\",this._updateCompact),this._map=void 0},nn.prototype._updateEditLink=function(){var t=this._editLink;t||(t=this._editLink=this._container.querySelector(\\\".mapbox-improve-map\\\"));var e=[{key:\\\"owner\\\",value:this.styleOwner},{key:\\\"id\\\",value:this.styleId},{key:\\\"access_token\\\",value:v.ACCESS_TOKEN}];if(t){var r=e.reduce(function(t,r,n){return r.value&&(t+=r.key+\\\"=\\\"+r.value+(n<e.length-1?\\\"&\\\":\\\"\\\")),t},\\\"?\\\");t.href=\\\"https://www.mapbox.com/feedback/\\\"+r+(this._map._hash?this._map._hash.getHashString(!0):\\\"\\\")}},nn.prototype._updateData=function(t){t&&\\\"metadata\\\"===t.sourceDataType&&(this._updateAttributions(),this._updateEditLink())},nn.prototype._updateAttributions=function(){if(this._map.style){var t=[];if(this._map.style.stylesheet){var e=this._map.style.stylesheet;this.styleOwner=e.owner,this.styleId=e.id}var r=this._map.style.sourceCaches;for(var n in r){var i=r[n].getSource();i.attribution&&t.indexOf(i.attribution)<0&&t.push(i.attribution)}t.sort(function(t,e){return t.length-e.length}),(t=t.filter(function(e,r){for(var n=r+1;n<t.length;n++)if(t[n].indexOf(e)>=0)return!1;return!0})).length?(this._container.innerHTML=t.join(\\\" | \\\"),this._container.classList.remove(\\\"mapboxgl-attrib-empty\\\")):this._container.classList.add(\\\"mapboxgl-attrib-empty\\\"),this._editLink=null}},nn.prototype._updateCompact=function(){this._map.getCanvasContainer().offsetWidth<=640?this._container.classList.add(\\\"mapboxgl-compact\\\"):this._container.classList.remove(\\\"mapboxgl-compact\\\")};var an=function(){t.bindAll([\\\"_updateLogo\\\"],this)};an.prototype.onAdd=function(t){this._map=t,this._container=s.create(\\\"div\\\",\\\"mapboxgl-ctrl\\\");var e=s.create(\\\"a\\\",\\\"mapboxgl-ctrl-logo\\\");return e.target=\\\"_blank\\\",e.href=\\\"https://www.mapbox.com/\\\",e.setAttribute(\\\"aria-label\\\",\\\"Mapbox logo\\\"),this._container.appendChild(e),this._container.style.display=\\\"none\\\",this._map.on(\\\"sourcedata\\\",this._updateLogo),this._updateLogo(),this._container},an.prototype.onRemove=function(){s.remove(this._container),this._map.off(\\\"sourcedata\\\",this._updateLogo)},an.prototype.getDefaultPosition=function(){return\\\"bottom-left\\\"},an.prototype._updateLogo=function(t){t&&\\\"metadata\\\"!==t.sourceDataType||(this._container.style.display=this._logoRequired()?\\\"block\\\":\\\"none\\\")},an.prototype._logoRequired=function(){if(this._map.style){var t=this._map.style.sourceCaches;for(var e in t)if(t[e].getSource().mapbox_logo)return!0;return!1}};var on=function(){this._queue=[],this._id=0,this._cleared=!1,this._currentlyRunning=!1};on.prototype.add=function(t){var e=++this._id;return this._queue.push({callback:t,id:e,cancelled:!1}),e},on.prototype.remove=function(t){for(var e=this._currentlyRunning,r=0,n=e?this._queue.concat(e):this._queue;r<n.length;r+=1){var i=n[r];if(i.id===t)return void(i.cancelled=!0)}},on.prototype.run=function(){var t=this._currentlyRunning=this._queue;this._queue=[];for(var e=0,r=t;e<r.length;e+=1){var n=r[e];if(!n.cancelled&&(n.callback(),this._cleared))break}this._cleared=!1,this._currentlyRunning=!1},on.prototype.clear=function(){this._currentlyRunning&&(this._cleared=!0),this._queue=[]};var sn=t.default.HTMLImageElement,ln=t.default.HTMLElement,cn={center:[0,0],zoom:0,bearing:0,pitch:0,minZoom:0,maxZoom:22,interactive:!0,scrollZoom:!0,boxZoom:!0,dragRotate:!0,dragPan:!0,keyboard:!0,doubleClickZoom:!0,touchZoomRotate:!0,bearingSnap:7,hash:!1,attributionControl:!0,failIfMajorPerformanceCaveat:!1,preserveDrawingBuffer:!1,trackResize:!0,renderWorldCopies:!0,refreshExpiredTiles:!0,maxTileCacheSize:null,transformRequest:null,fadeDuration:300},un=function(r){function n(e){if(null!=(e=t.extend({},cn,e)).minZoom&&null!=e.maxZoom&&e.minZoom>e.maxZoom)throw new Error(\\\"maxZoom must be greater than minZoom\\\");var n=new Br(e.minZoom,e.maxZoom,e.renderWorldCopies);r.call(this,n,e),this._interactive=e.interactive,this._maxTileCacheSize=e.maxTileCacheSize,this._failIfMajorPerformanceCaveat=e.failIfMajorPerformanceCaveat,this._preserveDrawingBuffer=e.preserveDrawingBuffer,this._trackResize=e.trackResize,this._bearingSnap=e.bearingSnap,this._refreshExpiredTiles=e.refreshExpiredTiles,this._fadeDuration=e.fadeDuration,this._crossFadingFactor=1,this._collectResourceTiming=e.collectResourceTiming,this._renderTaskQueue=new on;var i=e.transformRequest;if(this._transformRequest=i?function(t,e){return i(t,e)||{url:t}}:function(t){return{url:t}},\\\"string\\\"==typeof e.container){var a=t.default.document.getElementById(e.container);if(!a)throw new Error(\\\"Container '\\\"+e.container+\\\"' not found.\\\");this._container=a}else{if(!(e.container instanceof ln))throw new Error(\\\"Invalid type: 'container' must be a String or HTMLElement.\\\");this._container=e.container}e.maxBounds&&this.setMaxBounds(e.maxBounds),t.bindAll([\\\"_onWindowOnline\\\",\\\"_onWindowResize\\\",\\\"_contextLost\\\",\\\"_contextRestored\\\",\\\"_update\\\",\\\"_render\\\",\\\"_onData\\\",\\\"_onDataLoading\\\"],this),this._setupContainer(),this._setupPainter(),this.on(\\\"move\\\",this._update.bind(this,!1)),this.on(\\\"zoom\\\",this._update.bind(this,!0)),void 0!==t.default&&(t.default.addEventListener(\\\"online\\\",this._onWindowOnline,!1),t.default.addEventListener(\\\"resize\\\",this._onWindowResize,!1)),function(t,e){var r=t.getCanvasContainer(),n=null,i=!1;for(var a in en)t[a]=new en[a](t,e),e.interactive&&e[a]&&t[a].enable(e[a]);s.addEventListener(r,\\\"mouseout\\\",function(e){t.fire(new Vr(\\\"mouseout\\\",t,e))}),s.addEventListener(r,\\\"mousedown\\\",function(r){i=!0;var n=new Vr(\\\"mousedown\\\",t,r);t.fire(n),n.defaultPrevented||(e.interactive&&!t.doubleClickZoom.isActive()&&t.stop(),t.boxZoom.onMouseDown(r),t.boxZoom.isActive()||t.dragPan.isActive()||t.dragRotate.onMouseDown(r),t.boxZoom.isActive()||t.dragRotate.isActive()||t.dragPan.onMouseDown(r))}),s.addEventListener(r,\\\"mouseup\\\",function(e){var r=t.dragRotate.isActive();n&&!r&&t.fire(new Vr(\\\"contextmenu\\\",t,n)),n=null,i=!1,t.fire(new Vr(\\\"mouseup\\\",t,e))}),s.addEventListener(r,\\\"mousemove\\\",function(e){if(!t.dragPan.isActive()&&!t.dragRotate.isActive()){for(var n=e.toElement||e.target;n&&n!==r;)n=n.parentNode;n===r&&t.fire(new Vr(\\\"mousemove\\\",t,e))}}),s.addEventListener(r,\\\"mouseover\\\",function(e){for(var n=e.toElement||e.target;n&&n!==r;)n=n.parentNode;n===r&&t.fire(new Vr(\\\"mouseover\\\",t,e))}),s.addEventListener(r,\\\"touchstart\\\",function(r){var n=new Ur(\\\"touchstart\\\",t,r);t.fire(n),n.defaultPrevented||(e.interactive&&t.stop(),t.boxZoom.isActive()||t.dragRotate.isActive()||t.dragPan.onTouchStart(r),t.touchZoomRotate.onStart(r),t.doubleClickZoom.onTouchStart(n))},{passive:!1}),s.addEventListener(r,\\\"touchmove\\\",function(e){t.fire(new Ur(\\\"touchmove\\\",t,e))},{passive:!1}),s.addEventListener(r,\\\"touchend\\\",function(e){t.fire(new Ur(\\\"touchend\\\",t,e))}),s.addEventListener(r,\\\"touchcancel\\\",function(e){t.fire(new Ur(\\\"touchcancel\\\",t,e))}),s.addEventListener(r,\\\"click\\\",function(e){t.fire(new Vr(\\\"click\\\",t,e))}),s.addEventListener(r,\\\"dblclick\\\",function(e){var r=new Vr(\\\"dblclick\\\",t,e);t.fire(r),r.defaultPrevented||t.doubleClickZoom.onDblClick(r)}),s.addEventListener(r,\\\"contextmenu\\\",function(e){var r=t.dragRotate.isActive();i||r?i&&(n=e):t.fire(new Vr(\\\"contextmenu\\\",t,e)),e.preventDefault()}),s.addEventListener(r,\\\"wheel\\\",function(e){var r=new Hr(\\\"wheel\\\",t,e);t.fire(r),r.defaultPrevented||t.scrollZoom.onWheel(e)},{passive:!1})}(this,e),this._hash=e.hash&&(new jr).addTo(this),this._hash&&this._hash._onHashChange()||this.jumpTo({center:e.center,zoom:e.zoom,bearing:e.bearing,pitch:e.pitch}),this.resize(),e.style&&this.setStyle(e.style,{localIdeographFontFamily:e.localIdeographFontFamily}),e.attributionControl&&this.addControl(new nn),this.addControl(new an,e.logoPosition),this.on(\\\"style.load\\\",function(){this.transform.unmodified&&this.jumpTo(this.style.stylesheet)}),this.on(\\\"data\\\",this._onData),this.on(\\\"dataloading\\\",this._onDataLoading)}r&&(n.__proto__=r),n.prototype=Object.create(r&&r.prototype),n.prototype.constructor=n;var i={showTileBoundaries:{configurable:!0},showCollisionBoxes:{configurable:!0},showOverdrawInspector:{configurable:!0},repaint:{configurable:!0},vertices:{configurable:!0}};return n.prototype.addControl=function(t,e){void 0===e&&t.getDefaultPosition&&(e=t.getDefaultPosition()),void 0===e&&(e=\\\"top-right\\\");var r=t.onAdd(this),n=this._controlPositions[e];return-1!==e.indexOf(\\\"bottom\\\")?n.insertBefore(r,n.firstChild):n.appendChild(r),this},n.prototype.removeControl=function(t){return t.onRemove(this),this},n.prototype.resize=function(e){var r=this._containerDimensions(),n=r[0],i=r[1];return this._resizeCanvas(n,i),this.transform.resize(n,i),this.painter.resize(n,i),this.fire(new t.Event(\\\"movestart\\\",e)).fire(new t.Event(\\\"move\\\",e)).fire(new t.Event(\\\"resize\\\",e)).fire(new t.Event(\\\"moveend\\\",e))},n.prototype.getBounds=function(){var e=new Y(this.transform.pointLocation(new t.default$1(0,this.transform.height)),this.transform.pointLocation(new t.default$1(this.transform.width,0)));return(this.transform.angle||this.transform.pitch)&&(e.extend(this.transform.pointLocation(new t.default$1(this.transform.size.x,0))),e.extend(this.transform.pointLocation(new t.default$1(0,this.transform.size.y)))),e},n.prototype.getMaxBounds=function(){return this.transform.latRange&&2===this.transform.latRange.length&&this.transform.lngRange&&2===this.transform.lngRange.length?new Y([this.transform.lngRange[0],this.transform.latRange[0]],[this.transform.lngRange[1],this.transform.latRange[1]]):null},n.prototype.setMaxBounds=function(t){if(t){var e=Y.convert(t);this.transform.lngRange=[e.getWest(),e.getEast()],this.transform.latRange=[e.getSouth(),e.getNorth()],this.transform._constrain(),this._update()}else null==t&&(this.transform.lngRange=null,this.transform.latRange=null,this._update());return this},n.prototype.setMinZoom=function(t){if((t=null==t?0:t)>=0&&t<=this.transform.maxZoom)return this.transform.minZoom=t,this._update(),this.getZoom()<t&&this.setZoom(t),this;throw new Error(\\\"minZoom must be between 0 and the current maxZoom, inclusive\\\")},n.prototype.getMinZoom=function(){return this.transform.minZoom},n.prototype.setMaxZoom=function(t){if((t=null==t?22:t)>=this.transform.minZoom)return this.transform.maxZoom=t,this._update(),this.getZoom()>t&&this.setZoom(t),this;throw new Error(\\\"maxZoom must be greater than the current minZoom\\\")},n.prototype.getRenderWorldCopies=function(){return this.transform.renderWorldCopies},n.prototype.setRenderWorldCopies=function(t){return this.transform.renderWorldCopies=t,this._update(),this},n.prototype.getMaxZoom=function(){return this.transform.maxZoom},n.prototype.project=function(t){return this.transform.locationPoint(G.convert(t))},n.prototype.unproject=function(e){return this.transform.pointLocation(t.default$1.convert(e))},n.prototype.isMoving=function(){return this._moving||this.dragPan.isActive()||this.dragRotate.isActive()||this.scrollZoom.isActive()},n.prototype.isZooming=function(){return this._zooming||this.scrollZoom.isActive()},n.prototype.isRotating=function(){return this._rotating||this.dragRotate.isActive()},n.prototype.on=function(t,e,n){var i,a=this;if(void 0===n)return r.prototype.on.call(this,t,e);var o=function(){if(\\\"mouseenter\\\"===t||\\\"mouseover\\\"===t){var r=!1;return{layer:e,listener:n,delegates:{mousemove:function(i){var o=a.getLayer(e)?a.queryRenderedFeatures(i.point,{layers:[e]}):[];o.length?r||(r=!0,n.call(a,new Vr(t,a,i.originalEvent,{features:o}))):r=!1},mouseout:function(){r=!1}}}}if(\\\"mouseleave\\\"===t||\\\"mouseout\\\"===t){var o=!1;return{layer:e,listener:n,delegates:{mousemove:function(r){(a.getLayer(e)?a.queryRenderedFeatures(r.point,{layers:[e]}):[]).length?o=!0:o&&(o=!1,n.call(a,new Vr(t,a,r.originalEvent)))},mouseout:function(e){o&&(o=!1,n.call(a,new Vr(t,a,e.originalEvent)))}}}}return{layer:e,listener:n,delegates:(i={},i[t]=function(t){var r=a.getLayer(e)?a.queryRenderedFeatures(t.point,{layers:[e]}):[];r.length&&(t.features=r,n.call(a,t),delete t.features)},i)}}();for(var s in this._delegatedListeners=this._delegatedListeners||{},this._delegatedListeners[t]=this._delegatedListeners[t]||[],this._delegatedListeners[t].push(o),o.delegates)a.on(s,o.delegates[s]);return this},n.prototype.off=function(t,e,n){if(void 0===n)return r.prototype.off.call(this,t,e);if(this._delegatedListeners&&this._delegatedListeners[t])for(var i=this._delegatedListeners[t],a=0;a<i.length;a++){var o=i[a];if(o.layer===e&&o.listener===n){for(var s in o.delegates)this.off(s,o.delegates[s]);return i.splice(a,1),this}}return this},n.prototype.queryRenderedFeatures=function(e,r){var n;return 2===arguments.length?(e=arguments[0],r=arguments[1]):1===arguments.length&&((n=arguments[0])instanceof t.default$1||Array.isArray(n))?(e=arguments[0],r={}):1===arguments.length?(e=void 0,r=arguments[0]):(e=void 0,r={}),this.style?this.style.queryRenderedFeatures(this._makeQueryGeometry(e),r,this.transform):[]},n.prototype._makeQueryGeometry=function(e){var r,n=this;if(void 0===e&&(e=[t.default$1.convert([0,0]),t.default$1.convert([this.transform.width,this.transform.height])]),e instanceof t.default$1||\\\"number\\\"==typeof e[0])r=[t.default$1.convert(e)];else{var i=[t.default$1.convert(e[0]),t.default$1.convert(e[1])];r=[i[0],new t.default$1(i[1].x,i[0].y),i[1],new t.default$1(i[0].x,i[1].y),i[0]]}return{viewport:r,worldCoordinate:r.map(function(t){return n.transform.pointCoordinate(t)})}},n.prototype.querySourceFeatures=function(t,e){return this.style.querySourceFeatures(t,e)},n.prototype.setStyle=function(e,r){if((!r||!1!==r.diff&&!r.localIdeographFontFamily)&&this.style&&e&&\\\"object\\\"==typeof e)try{return this.style.setState(e)&&this._update(!0),this}catch(e){t.warnOnce(\\\"Unable to perform style diff: \\\"+(e.message||e.error||e)+\\\".  Rebuilding the style from scratch.\\\")}return this.style&&(this.style.setEventedParent(null),this.style._remove()),e?(this.style=new Je(this,r||{}),this.style.setEventedParent(this,{style:this.style}),\\\"string\\\"==typeof e?this.style.loadURL(e):this.style.loadJSON(e),this):(delete this.style,this)},n.prototype.getStyle=function(){if(this.style)return this.style.serialize()},n.prototype.isStyleLoaded=function(){return this.style?this.style.loaded():t.warnOnce(\\\"There is no style added to the map.\\\")},n.prototype.addSource=function(t,e){return this.style.addSource(t,e),this._update(!0),this},n.prototype.isSourceLoaded=function(e){var r=this.style&&this.style.sourceCaches[e];if(void 0!==r)return r.loaded();this.fire(new t.ErrorEvent(new Error(\\\"There is no source with ID '\\\"+e+\\\"'\\\")))},n.prototype.areTilesLoaded=function(){var t=this.style&&this.style.sourceCaches;for(var e in t){var r=t[e]._tiles;for(var n in r){var i=r[n];if(\\\"loaded\\\"!==i.state&&\\\"errored\\\"!==i.state)return!1}}return!0},n.prototype.addSourceType=function(t,e,r){return this.style.addSourceType(t,e,r)},n.prototype.removeSource=function(t){return this.style.removeSource(t),this._update(!0),this},n.prototype.getSource=function(t){return this.style.getSource(t)},n.prototype.addImage=function(e,r,n){void 0===n&&(n={});var i=n.pixelRatio;void 0===i&&(i=1);var o=n.sdf;if(void 0===o&&(o=!1),r instanceof sn){var s=a.getImageData(r),l=s.width,c=s.height,u=s.data;this.style.addImage(e,{data:new t.RGBAImage({width:l,height:c},u),pixelRatio:i,sdf:o})}else{if(void 0===r.width||void 0===r.height)return this.fire(new t.ErrorEvent(new Error(\\\"Invalid arguments to map.addImage(). The second argument must be an `HTMLImageElement`, `ImageData`, or object with `width`, `height`, and `data` properties with the same format as `ImageData`\\\")));var f=r.width,h=r.height,p=r.data;this.style.addImage(e,{data:new t.RGBAImage({width:f,height:h},p.slice(0)),pixelRatio:i,sdf:o})}},n.prototype.hasImage=function(e){return e?!!this.style.getImage(e):(this.fire(new t.ErrorEvent(new Error(\\\"Missing required image id\\\"))),!1)},n.prototype.removeImage=function(t){this.style.removeImage(t)},n.prototype.loadImage=function(e,r){t.getImage(this._transformRequest(e,t.ResourceType.Image),r)},n.prototype.addLayer=function(t,e){return this.style.addLayer(t,e),this._update(!0),this},n.prototype.moveLayer=function(t,e){return this.style.moveLayer(t,e),this._update(!0),this},n.prototype.removeLayer=function(t){return this.style.removeLayer(t),this._update(!0),this},n.prototype.getLayer=function(t){return this.style.getLayer(t)},n.prototype.setFilter=function(t,e){return this.style.setFilter(t,e),this._update(!0),this},n.prototype.setLayerZoomRange=function(t,e,r){return this.style.setLayerZoomRange(t,e,r),this._update(!0),this},n.prototype.getFilter=function(t){return this.style.getFilter(t)},n.prototype.setPaintProperty=function(t,e,r){return this.style.setPaintProperty(t,e,r),this._update(!0),this},n.prototype.getPaintProperty=function(t,e){return this.style.getPaintProperty(t,e)},n.prototype.setLayoutProperty=function(t,e,r){return this.style.setLayoutProperty(t,e,r),this._update(!0),this},n.prototype.getLayoutProperty=function(t,e){return this.style.getLayoutProperty(t,e)},n.prototype.setLight=function(t){return this.style.setLight(t),this._update(!0),this},n.prototype.getLight=function(){return this.style.getLight()},n.prototype.getContainer=function(){return this._container},n.prototype.getCanvasContainer=function(){return this._canvasContainer},n.prototype.getCanvas=function(){return this._canvas},n.prototype._containerDimensions=function(){var t=0,e=0;return this._container&&(t=this._container.offsetWidth||400,e=this._container.offsetHeight||300),[t,e]},n.prototype._setupContainer=function(){var t=this._container;t.classList.add(\\\"mapboxgl-map\\\"),(this._missingCSSContainer=s.create(\\\"div\\\",\\\"mapboxgl-missing-css\\\",t)).innerHTML=\\\"Missing Mapbox GL JS CSS\\\";var e=this._canvasContainer=s.create(\\\"div\\\",\\\"mapboxgl-canvas-container\\\",t);this._interactive&&e.classList.add(\\\"mapboxgl-interactive\\\"),this._canvas=s.create(\\\"canvas\\\",\\\"mapboxgl-canvas\\\",e),this._canvas.style.position=\\\"absolute\\\",this._canvas.addEventListener(\\\"webglcontextlost\\\",this._contextLost,!1),this._canvas.addEventListener(\\\"webglcontextrestored\\\",this._contextRestored,!1),this._canvas.setAttribute(\\\"tabindex\\\",\\\"0\\\"),this._canvas.setAttribute(\\\"aria-label\\\",\\\"Map\\\");var r=this._containerDimensions();this._resizeCanvas(r[0],r[1]);var n=this._controlContainer=s.create(\\\"div\\\",\\\"mapboxgl-control-container\\\",t),i=this._controlPositions={};[\\\"top-left\\\",\\\"top-right\\\",\\\"bottom-left\\\",\\\"bottom-right\\\"].forEach(function(t){i[t]=s.create(\\\"div\\\",\\\"mapboxgl-ctrl-\\\"+t,n)})},n.prototype._resizeCanvas=function(e,r){var n=t.default.devicePixelRatio||1;this._canvas.width=n*e,this._canvas.height=n*r,this._canvas.style.width=e+\\\"px\\\",this._canvas.style.height=r+\\\"px\\\"},n.prototype._setupPainter=function(){var r=t.extend({failIfMajorPerformanceCaveat:this._failIfMajorPerformanceCaveat,preserveDrawingBuffer:this._preserveDrawingBuffer},e.webGLContextAttributes),n=this._canvas.getContext(\\\"webgl\\\",r)||this._canvas.getContext(\\\"experimental-webgl\\\",r);n?this.painter=new zr(n,this.transform):this.fire(new t.ErrorEvent(new Error(\\\"Failed to initialize WebGL\\\")))},n.prototype._contextLost=function(e){e.preventDefault(),this._frameId&&(a.cancelFrame(this._frameId),this._frameId=null),this.fire(new t.Event(\\\"webglcontextlost\\\",{originalEvent:e}))},n.prototype._contextRestored=function(e){this._setupPainter(),this.resize(),this._update(),this.fire(new t.Event(\\\"webglcontextrestored\\\",{originalEvent:e}))},n.prototype.loaded=function(){return!this._styleDirty&&!this._sourcesDirty&&!(!this.style||!this.style.loaded())},n.prototype._update=function(t){this.style&&(this._styleDirty=this._styleDirty||t,this._sourcesDirty=!0,this._rerender())},n.prototype._requestRenderFrame=function(t){return this._update(),this._renderTaskQueue.add(t)},n.prototype._cancelRenderFrame=function(t){this._renderTaskQueue.remove(t)},n.prototype._render=function(){this._renderTaskQueue.run();var e=!1;if(this.style&&this._styleDirty){this._styleDirty=!1;var r=this.transform.zoom,n=a.now();this.style.zoomHistory.update(r,n);var i=new t.default$16(r,{now:n,fadeDuration:this._fadeDuration,zoomHistory:this.style.zoomHistory,transition:this.style.getTransition()}),o=i.crossFadingFactor();1===o&&o===this._crossFadingFactor||(e=!0,this._crossFadingFactor=o),this.style.update(i)}return this.style&&this._sourcesDirty&&(this._sourcesDirty=!1,this.style._updateSources(this.transform)),this._placementDirty=this.style&&this.style._updatePlacement(this.painter.transform,this.showCollisionBoxes,this._fadeDuration),this.painter.render(this.style,{showTileBoundaries:this.showTileBoundaries,showOverdrawInspector:this._showOverdrawInspector,rotating:this.isRotating(),zooming:this.isZooming(),fadeDuration:this._fadeDuration}),this.fire(new t.Event(\\\"render\\\")),this.loaded()&&!this._loaded&&(this._loaded=!0,this.fire(new t.Event(\\\"load\\\"))),this.style&&(this.style.hasTransitions()||e)&&(this._styleDirty=!0),(this._sourcesDirty||this._repaint||this._styleDirty||this._placementDirty)&&this._rerender(),this},n.prototype.remove=function(){this._hash&&this._hash.remove(),a.cancelFrame(this._frameId),this._renderTaskQueue.clear(),this._frameId=null,this.setStyle(null),void 0!==t.default&&(t.default.removeEventListener(\\\"resize\\\",this._onWindowResize,!1),t.default.removeEventListener(\\\"online\\\",this._onWindowOnline,!1));var e=this.painter.context.gl.getExtension(\\\"WEBGL_lose_context\\\");e&&e.loseContext(),fn(this._canvasContainer),fn(this._controlContainer),fn(this._missingCSSContainer),this._container.classList.remove(\\\"mapboxgl-map\\\"),this.fire(new t.Event(\\\"remove\\\"))},n.prototype._rerender=function(){var t=this;this.style&&!this._frameId&&(this._frameId=a.frame(function(){t._frameId=null,t._render()}))},n.prototype._onWindowOnline=function(){this._update()},n.prototype._onWindowResize=function(){this._trackResize&&this.stop().resize()._update()},i.showTileBoundaries.get=function(){return!!this._showTileBoundaries},i.showTileBoundaries.set=function(t){this._showTileBoundaries!==t&&(this._showTileBoundaries=t,this._update())},i.showCollisionBoxes.get=function(){return!!this._showCollisionBoxes},i.showCollisionBoxes.set=function(t){this._showCollisionBoxes!==t&&(this._showCollisionBoxes=t,t?this.style._generateCollisionBoxes():this._update())},i.showOverdrawInspector.get=function(){return!!this._showOverdrawInspector},i.showOverdrawInspector.set=function(t){this._showOverdrawInspector!==t&&(this._showOverdrawInspector=t,this._update())},i.repaint.get=function(){return!!this._repaint},i.repaint.set=function(t){this._repaint=t,this._update()},i.vertices.get=function(){return!!this._vertices},i.vertices.set=function(t){this._vertices=t,this._update()},n.prototype._onData=function(e){this._update(\\\"style\\\"===e.dataType),this.fire(new t.Event(e.dataType+\\\"data\\\",e))},n.prototype._onDataLoading=function(e){this.fire(new t.Event(e.dataType+\\\"dataloading\\\",e))},Object.defineProperties(n.prototype,i),n}(rn);function fn(t){t.parentNode&&t.parentNode.removeChild(t)}var hn={showCompass:!0,showZoom:!0},pn=function(e){var r=this;this.options=t.extend({},hn,e),this._container=s.create(\\\"div\\\",\\\"mapboxgl-ctrl mapboxgl-ctrl-group\\\"),this._container.addEventListener(\\\"contextmenu\\\",function(t){return t.preventDefault()}),this.options.showZoom&&(this._zoomInButton=this._createButton(\\\"mapboxgl-ctrl-icon mapboxgl-ctrl-zoom-in\\\",\\\"Zoom In\\\",function(){return r._map.zoomIn()}),this._zoomOutButton=this._createButton(\\\"mapboxgl-ctrl-icon mapboxgl-ctrl-zoom-out\\\",\\\"Zoom Out\\\",function(){return r._map.zoomOut()})),this.options.showCompass&&(t.bindAll([\\\"_rotateCompassArrow\\\"],this),this._compass=this._createButton(\\\"mapboxgl-ctrl-icon mapboxgl-ctrl-compass\\\",\\\"Reset North\\\",function(){return r._map.resetNorth()}),this._compassArrow=s.create(\\\"span\\\",\\\"mapboxgl-ctrl-compass-arrow\\\",this._compass))};function dn(t,e,r){if(t=new G(t.lng,t.lat),e){var n=new G(t.lng-360,t.lat),i=new G(t.lng+360,t.lat),a=r.locationPoint(t).distSqr(e);r.locationPoint(n).distSqr(e)<a?t=n:r.locationPoint(i).distSqr(e)<a&&(t=i)}for(;Math.abs(t.lng-r.center.lng)>180;){var o=r.locationPoint(t);if(o.x>=0&&o.y>=0&&o.x<=r.width&&o.y<=r.height)break;t.lng>r.center.lng?t.lng-=360:t.lng+=360}return t}pn.prototype._rotateCompassArrow=function(){var t=\\\"rotate(\\\"+this._map.transform.angle*(180/Math.PI)+\\\"deg)\\\";this._compassArrow.style.transform=t},pn.prototype.onAdd=function(t){return this._map=t,this.options.showCompass&&(this._map.on(\\\"rotate\\\",this._rotateCompassArrow),this._rotateCompassArrow(),this._handler=new Wr(t,{button:\\\"left\\\",element:this._compass}),this._handler.enable()),this._container},pn.prototype.onRemove=function(){s.remove(this._container),this.options.showCompass&&(this._map.off(\\\"rotate\\\",this._rotateCompassArrow),this._handler.disable(),delete this._handler),delete this._map},pn.prototype._createButton=function(t,e,r){var n=s.create(\\\"button\\\",t,this._container);return n.type=\\\"button\\\",n.setAttribute(\\\"aria-label\\\",e),n.addEventListener(\\\"click\\\",r),n};var gn={center:\\\"translate(-50%,-50%)\\\",top:\\\"translate(-50%,0)\\\",\\\"top-left\\\":\\\"translate(0,0)\\\",\\\"top-right\\\":\\\"translate(-100%,0)\\\",bottom:\\\"translate(-50%,-100%)\\\",\\\"bottom-left\\\":\\\"translate(0,-100%)\\\",\\\"bottom-right\\\":\\\"translate(-100%,-100%)\\\",left:\\\"translate(0,-50%)\\\",right:\\\"translate(-100%,-50%)\\\"};function vn(t,e,r){var n=t.classList;for(var i in gn)n.remove(\\\"mapboxgl-\\\"+r+\\\"-anchor-\\\"+i);n.add(\\\"mapboxgl-\\\"+r+\\\"-anchor-\\\"+e)}var mn=function(e){if((arguments[0]instanceof t.default.HTMLElement||2===arguments.length)&&(e=t.extend({element:e},arguments[1])),t.bindAll([\\\"_update\\\",\\\"_onMapClick\\\"],this),this._anchor=e&&e.anchor||\\\"center\\\",this._color=e&&e.color||\\\"#3FB1CE\\\",e&&e.element)this._element=e.element,this._offset=t.default$1.convert(e&&e.offset||[0,0]);else{this._defaultMarker=!0,this._element=s.create(\\\"div\\\");var r=s.createNS(\\\"http://www.w3.org/2000/svg\\\",\\\"svg\\\");r.setAttributeNS(null,\\\"height\\\",\\\"41px\\\"),r.setAttributeNS(null,\\\"width\\\",\\\"27px\\\"),r.setAttributeNS(null,\\\"viewBox\\\",\\\"0 0 27 41\\\");var n=s.createNS(\\\"http://www.w3.org/2000/svg\\\",\\\"g\\\");n.setAttributeNS(null,\\\"stroke\\\",\\\"none\\\"),n.setAttributeNS(null,\\\"stroke-width\\\",\\\"1\\\"),n.setAttributeNS(null,\\\"fill\\\",\\\"none\\\"),n.setAttributeNS(null,\\\"fill-rule\\\",\\\"evenodd\\\");var i=s.createNS(\\\"http://www.w3.org/2000/svg\\\",\\\"g\\\");i.setAttributeNS(null,\\\"fill-rule\\\",\\\"nonzero\\\");var a=s.createNS(\\\"http://www.w3.org/2000/svg\\\",\\\"g\\\");a.setAttributeNS(null,\\\"transform\\\",\\\"translate(3.0, 29.0)\\\"),a.setAttributeNS(null,\\\"fill\\\",\\\"#000000\\\");for(var o=0,l=[{rx:\\\"10.5\\\",ry:\\\"5.25002273\\\"},{rx:\\\"10.5\\\",ry:\\\"5.25002273\\\"},{rx:\\\"9.5\\\",ry:\\\"4.77275007\\\"},{rx:\\\"8.5\\\",ry:\\\"4.29549936\\\"},{rx:\\\"7.5\\\",ry:\\\"3.81822308\\\"},{rx:\\\"6.5\\\",ry:\\\"3.34094679\\\"},{rx:\\\"5.5\\\",ry:\\\"2.86367051\\\"},{rx:\\\"4.5\\\",ry:\\\"2.38636864\\\"}];o<l.length;o+=1){var c=l[o],u=s.createNS(\\\"http://www.w3.org/2000/svg\\\",\\\"ellipse\\\");u.setAttributeNS(null,\\\"opacity\\\",\\\"0.04\\\"),u.setAttributeNS(null,\\\"cx\\\",\\\"10.5\\\"),u.setAttributeNS(null,\\\"cy\\\",\\\"5.80029008\\\"),u.setAttributeNS(null,\\\"rx\\\",c.rx),u.setAttributeNS(null,\\\"ry\\\",c.ry),a.appendChild(u)}var f=s.createNS(\\\"http://www.w3.org/2000/svg\\\",\\\"g\\\");f.setAttributeNS(null,\\\"fill\\\",this._color);var h=s.createNS(\\\"http://www.w3.org/2000/svg\\\",\\\"path\\\");h.setAttributeNS(null,\\\"d\\\",\\\"M27,13.5 C27,19.074644 20.250001,27.000002 14.75,34.500002 C14.016665,35.500004 12.983335,35.500004 12.25,34.500002 C6.7499993,27.000002 0,19.222562 0,13.5 C0,6.0441559 6.0441559,0 13.5,0 C20.955844,0 27,6.0441559 27,13.5 Z\\\"),f.appendChild(h);var p=s.createNS(\\\"http://www.w3.org/2000/svg\\\",\\\"g\\\");p.setAttributeNS(null,\\\"opacity\\\",\\\"0.25\\\"),p.setAttributeNS(null,\\\"fill\\\",\\\"#000000\\\");var d=s.createNS(\\\"http://www.w3.org/2000/svg\\\",\\\"path\\\");d.setAttributeNS(null,\\\"d\\\",\\\"M13.5,0 C6.0441559,0 0,6.0441559 0,13.5 C0,19.222562 6.7499993,27 12.25,34.5 C13,35.522727 14.016664,35.500004 14.75,34.5 C20.250001,27 27,19.074644 27,13.5 C27,6.0441559 20.955844,0 13.5,0 Z M13.5,1 C20.415404,1 26,6.584596 26,13.5 C26,15.898657 24.495584,19.181431 22.220703,22.738281 C19.945823,26.295132 16.705119,30.142167 13.943359,33.908203 C13.743445,34.180814 13.612715,34.322738 13.5,34.441406 C13.387285,34.322738 13.256555,34.180814 13.056641,33.908203 C10.284481,30.127985 7.4148684,26.314159 5.015625,22.773438 C2.6163816,19.232715 1,15.953538 1,13.5 C1,6.584596 6.584596,1 13.5,1 Z\\\"),p.appendChild(d);var g=s.createNS(\\\"http://www.w3.org/2000/svg\\\",\\\"g\\\");g.setAttributeNS(null,\\\"transform\\\",\\\"translate(6.0, 7.0)\\\"),g.setAttributeNS(null,\\\"fill\\\",\\\"#FFFFFF\\\");var v=s.createNS(\\\"http://www.w3.org/2000/svg\\\",\\\"g\\\");v.setAttributeNS(null,\\\"transform\\\",\\\"translate(8.0, 8.0)\\\");var m=s.createNS(\\\"http://www.w3.org/2000/svg\\\",\\\"circle\\\");m.setAttributeNS(null,\\\"fill\\\",\\\"#000000\\\"),m.setAttributeNS(null,\\\"opacity\\\",\\\"0.25\\\"),m.setAttributeNS(null,\\\"cx\\\",\\\"5.5\\\"),m.setAttributeNS(null,\\\"cy\\\",\\\"5.5\\\"),m.setAttributeNS(null,\\\"r\\\",\\\"5.4999962\\\");var y=s.createNS(\\\"http://www.w3.org/2000/svg\\\",\\\"circle\\\");y.setAttributeNS(null,\\\"fill\\\",\\\"#FFFFFF\\\"),y.setAttributeNS(null,\\\"cx\\\",\\\"5.5\\\"),y.setAttributeNS(null,\\\"cy\\\",\\\"5.5\\\"),y.setAttributeNS(null,\\\"r\\\",\\\"5.4999962\\\"),v.appendChild(m),v.appendChild(y),i.appendChild(a),i.appendChild(f),i.appendChild(p),i.appendChild(g),i.appendChild(v),r.appendChild(i),this._element.appendChild(r),this._offset=t.default$1.convert(e&&e.offset||[0,-14])}this._element.classList.add(\\\"mapboxgl-marker\\\"),this._popup=null};mn.prototype.addTo=function(t){return this.remove(),this._map=t,t.getCanvasContainer().appendChild(this._element),t.on(\\\"move\\\",this._update),t.on(\\\"moveend\\\",this._update),this._update(),this._map.on(\\\"click\\\",this._onMapClick),this},mn.prototype.remove=function(){return this._map&&(this._map.off(\\\"click\\\",this._onMapClick),this._map.off(\\\"move\\\",this._update),this._map.off(\\\"moveend\\\",this._update),delete this._map),s.remove(this._element),this._popup&&this._popup.remove(),this},mn.prototype.getLngLat=function(){return this._lngLat},mn.prototype.setLngLat=function(t){return this._lngLat=G.convert(t),this._pos=null,this._popup&&this._popup.setLngLat(this._lngLat),this._update(),this},mn.prototype.getElement=function(){return this._element},mn.prototype.setPopup=function(t){if(this._popup&&(this._popup.remove(),this._popup=null),t){if(!(\\\"offset\\\"in t.options)){var e=Math.sqrt(Math.pow(13.5,2)/2);t.options.offset=this._defaultMarker?{top:[0,0],\\\"top-left\\\":[0,0],\\\"top-right\\\":[0,0],bottom:[0,-38.1],\\\"bottom-left\\\":[e,-1*(24.6+e)],\\\"bottom-right\\\":[-e,-1*(24.6+e)],left:[13.5,-24.6],right:[-13.5,-24.6]}:this._offset}this._popup=t,this._lngLat&&this._popup.setLngLat(this._lngLat)}return this},mn.prototype._onMapClick=function(t){var e=t.originalEvent.target,r=this._element;this._popup&&(e===r||r.contains(e))&&this.togglePopup()},mn.prototype.getPopup=function(){return this._popup},mn.prototype.togglePopup=function(){var t=this._popup;return t?(t.isOpen()?t.remove():t.addTo(this._map),this):this},mn.prototype._update=function(t){this._map&&(this._map.transform.renderWorldCopies&&(this._lngLat=dn(this._lngLat,this._pos,this._map.transform)),this._pos=this._map.project(this._lngLat)._add(this._offset),t&&\\\"moveend\\\"!==t.type||(this._pos=this._pos.round()),s.setTransform(this._element,gn[this._anchor]+\\\" translate(\\\"+this._pos.x+\\\"px, \\\"+this._pos.y+\\\"px)\\\"),vn(this._element,this._anchor,\\\"marker\\\"))},mn.prototype.getOffset=function(){return this._offset},mn.prototype.setOffset=function(e){return this._offset=t.default$1.convert(e),this._update(),this};var yn,xn={positionOptions:{enableHighAccuracy:!1,maximumAge:0,timeout:6e3},fitBoundsOptions:{maxZoom:15},trackUserLocation:!1,showUserLocation:!0},bn=function(e){function r(r){e.call(this),this.options=t.extend({},xn,r),t.bindAll([\\\"_onSuccess\\\",\\\"_onError\\\",\\\"_finish\\\",\\\"_setupUI\\\",\\\"_updateCamera\\\",\\\"_updateMarker\\\"],this)}return e&&(r.__proto__=e),r.prototype=Object.create(e&&e.prototype),r.prototype.constructor=r,r.prototype.onAdd=function(e){var r;return this._map=e,this._container=s.create(\\\"div\\\",\\\"mapboxgl-ctrl mapboxgl-ctrl-group\\\"),r=this._setupUI,void 0!==yn?r(yn):void 0!==t.default.navigator.permissions?t.default.navigator.permissions.query({name:\\\"geolocation\\\"}).then(function(t){yn=\\\"denied\\\"!==t.state,r(yn)}):(yn=!!t.default.navigator.geolocation,r(yn)),this._container},r.prototype.onRemove=function(){void 0!==this._geolocationWatchID&&(t.default.navigator.geolocation.clearWatch(this._geolocationWatchID),this._geolocationWatchID=void 0),this.options.showUserLocation&&this._userLocationDotMarker.remove(),s.remove(this._container),this._map=void 0},r.prototype._onSuccess=function(e){if(this.options.trackUserLocation)switch(this._lastKnownPosition=e,this._watchState){case\\\"WAITING_ACTIVE\\\":case\\\"ACTIVE_LOCK\\\":case\\\"ACTIVE_ERROR\\\":this._watchState=\\\"ACTIVE_LOCK\\\",this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-waiting\\\"),this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-active-error\\\"),this._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-active\\\");break;case\\\"BACKGROUND\\\":case\\\"BACKGROUND_ERROR\\\":this._watchState=\\\"BACKGROUND\\\",this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-waiting\\\"),this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-background-error\\\"),this._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-background\\\")}this.options.showUserLocation&&\\\"OFF\\\"!==this._watchState&&this._updateMarker(e),this.options.trackUserLocation&&\\\"ACTIVE_LOCK\\\"!==this._watchState||this._updateCamera(e),this.options.showUserLocation&&this._dotElement.classList.remove(\\\"mapboxgl-user-location-dot-stale\\\"),this.fire(new t.Event(\\\"geolocate\\\",e)),this._finish()},r.prototype._updateCamera=function(t){var e=new G(t.coords.longitude,t.coords.latitude),r=t.coords.accuracy;this._map.fitBounds(e.toBounds(r),this.options.fitBoundsOptions,{geolocateSource:!0})},r.prototype._updateMarker=function(t){t?this._userLocationDotMarker.setLngLat([t.coords.longitude,t.coords.latitude]).addTo(this._map):this._userLocationDotMarker.remove()},r.prototype._onError=function(e){if(this.options.trackUserLocation)if(1===e.code)this._watchState=\\\"OFF\\\",this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-waiting\\\"),this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-active\\\"),this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-active-error\\\"),this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-background\\\"),this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-background-error\\\"),void 0!==this._geolocationWatchID&&this._clearWatch();else switch(this._watchState){case\\\"WAITING_ACTIVE\\\":this._watchState=\\\"ACTIVE_ERROR\\\",this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-active\\\"),this._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-active-error\\\");break;case\\\"ACTIVE_LOCK\\\":this._watchState=\\\"ACTIVE_ERROR\\\",this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-active\\\"),this._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-active-error\\\"),this._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-waiting\\\");break;case\\\"BACKGROUND\\\":this._watchState=\\\"BACKGROUND_ERROR\\\",this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-background\\\"),this._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-background-error\\\"),this._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-waiting\\\")}\\\"OFF\\\"!==this._watchState&&this.options.showUserLocation&&this._dotElement.classList.add(\\\"mapboxgl-user-location-dot-stale\\\"),this.fire(new t.Event(\\\"error\\\",e)),this._finish()},r.prototype._finish=function(){this._timeoutId&&clearTimeout(this._timeoutId),this._timeoutId=void 0},r.prototype._setupUI=function(e){var r=this;!1!==e&&(this._container.addEventListener(\\\"contextmenu\\\",function(t){return t.preventDefault()}),this._geolocateButton=s.create(\\\"button\\\",\\\"mapboxgl-ctrl-icon mapboxgl-ctrl-geolocate\\\",this._container),this._geolocateButton.type=\\\"button\\\",this._geolocateButton.setAttribute(\\\"aria-label\\\",\\\"Geolocate\\\"),this.options.trackUserLocation&&(this._geolocateButton.setAttribute(\\\"aria-pressed\\\",\\\"false\\\"),this._watchState=\\\"OFF\\\"),this.options.showUserLocation&&(this._dotElement=s.create(\\\"div\\\",\\\"mapboxgl-user-location-dot\\\"),this._userLocationDotMarker=new mn(this._dotElement),this.options.trackUserLocation&&(this._watchState=\\\"OFF\\\")),this._geolocateButton.addEventListener(\\\"click\\\",this.trigger.bind(this)),this._setup=!0,this.options.trackUserLocation&&this._map.on(\\\"movestart\\\",function(e){e.geolocateSource||\\\"ACTIVE_LOCK\\\"!==r._watchState||(r._watchState=\\\"BACKGROUND\\\",r._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-background\\\"),r._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-active\\\"),r.fire(new t.Event(\\\"trackuserlocationend\\\")))}))},r.prototype.trigger=function(){if(!this._setup)return t.warnOnce(\\\"Geolocate control triggered before added to a map\\\"),!1;if(this.options.trackUserLocation){switch(this._watchState){case\\\"OFF\\\":this._watchState=\\\"WAITING_ACTIVE\\\",this.fire(new t.Event(\\\"trackuserlocationstart\\\"));break;case\\\"WAITING_ACTIVE\\\":case\\\"ACTIVE_LOCK\\\":case\\\"ACTIVE_ERROR\\\":case\\\"BACKGROUND_ERROR\\\":this._watchState=\\\"OFF\\\",this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-waiting\\\"),this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-active\\\"),this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-active-error\\\"),this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-background\\\"),this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-background-error\\\"),this.fire(new t.Event(\\\"trackuserlocationend\\\"));break;case\\\"BACKGROUND\\\":this._watchState=\\\"ACTIVE_LOCK\\\",this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-background\\\"),this._lastKnownPosition&&this._updateCamera(this._lastKnownPosition),this.fire(new t.Event(\\\"trackuserlocationstart\\\"))}switch(this._watchState){case\\\"WAITING_ACTIVE\\\":this._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-waiting\\\"),this._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-active\\\");break;case\\\"ACTIVE_LOCK\\\":this._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-active\\\");break;case\\\"ACTIVE_ERROR\\\":this._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-waiting\\\"),this._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-active-error\\\");break;case\\\"BACKGROUND\\\":this._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-background\\\");break;case\\\"BACKGROUND_ERROR\\\":this._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-waiting\\\"),this._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-background-error\\\")}\\\"OFF\\\"===this._watchState&&void 0!==this._geolocationWatchID?this._clearWatch():void 0===this._geolocationWatchID&&(this._geolocateButton.classList.add(\\\"mapboxgl-ctrl-geolocate-waiting\\\"),this._geolocateButton.setAttribute(\\\"aria-pressed\\\",\\\"true\\\"),this._geolocationWatchID=t.default.navigator.geolocation.watchPosition(this._onSuccess,this._onError,this.options.positionOptions))}else t.default.navigator.geolocation.getCurrentPosition(this._onSuccess,this._onError,this.options.positionOptions),this._timeoutId=setTimeout(this._finish,1e4);return!0},r.prototype._clearWatch=function(){t.default.navigator.geolocation.clearWatch(this._geolocationWatchID),this._geolocationWatchID=void 0,this._geolocateButton.classList.remove(\\\"mapboxgl-ctrl-geolocate-waiting\\\"),this._geolocateButton.setAttribute(\\\"aria-pressed\\\",\\\"false\\\"),this.options.showUserLocation&&this._updateMarker(null)},r}(t.Evented),_n={maxWidth:100,unit:\\\"metric\\\"},wn=function(e){this.options=t.extend({},_n,e),t.bindAll([\\\"_onMove\\\",\\\"setUnit\\\"],this)};function kn(t,e,r){var n,i,a,o,s,l,c=r&&r.maxWidth||100,u=t._container.clientHeight/2,f=(n=t.unproject([0,u]),i=t.unproject([c,u]),a=Math.PI/180,o=n.lat*a,s=i.lat*a,l=Math.sin(o)*Math.sin(s)+Math.cos(o)*Math.cos(s)*Math.cos((i.lng-n.lng)*a),6371e3*Math.acos(Math.min(l,1)));if(r&&\\\"imperial\\\"===r.unit){var h=3.2808*f;h>5280?Tn(e,c,h/5280,\\\"mi\\\"):Tn(e,c,h,\\\"ft\\\")}else r&&\\\"nautical\\\"===r.unit?Tn(e,c,f/1852,\\\"nm\\\"):Tn(e,c,f,\\\"m\\\")}function Tn(t,e,r,n){var i,a,o,s=(i=r,(a=Math.pow(10,(\\\"\\\"+Math.floor(i)).length-1))*(o=(o=i/a)>=10?10:o>=5?5:o>=3?3:o>=2?2:1)),l=s/r;\\\"m\\\"===n&&s>=1e3&&(s/=1e3,n=\\\"km\\\"),t.style.width=e*l+\\\"px\\\",t.innerHTML=s+n}wn.prototype.getDefaultPosition=function(){return\\\"bottom-left\\\"},wn.prototype._onMove=function(){kn(this._map,this._container,this.options)},wn.prototype.onAdd=function(t){return this._map=t,this._container=s.create(\\\"div\\\",\\\"mapboxgl-ctrl mapboxgl-ctrl-scale\\\",t.getContainer()),this._map.on(\\\"move\\\",this._onMove),this._onMove(),this._container},wn.prototype.onRemove=function(){s.remove(this._container),this._map.off(\\\"move\\\",this._onMove),this._map=void 0},wn.prototype.setUnit=function(t){this.options.unit=t,kn(this._map,this._container,this.options)};var An=function(){this._fullscreen=!1,t.bindAll([\\\"_onClickFullscreen\\\",\\\"_changeIcon\\\"],this),\\\"onfullscreenchange\\\"in t.default.document?this._fullscreenchange=\\\"fullscreenchange\\\":\\\"onmozfullscreenchange\\\"in t.default.document?this._fullscreenchange=\\\"mozfullscreenchange\\\":\\\"onwebkitfullscreenchange\\\"in t.default.document?this._fullscreenchange=\\\"webkitfullscreenchange\\\":\\\"onmsfullscreenchange\\\"in t.default.document&&(this._fullscreenchange=\\\"MSFullscreenChange\\\"),this._className=\\\"mapboxgl-ctrl\\\"};An.prototype.onAdd=function(e){return this._map=e,this._mapContainer=this._map.getContainer(),this._container=s.create(\\\"div\\\",this._className+\\\" mapboxgl-ctrl-group\\\"),this._checkFullscreenSupport()?this._setupUI():(this._container.style.display=\\\"none\\\",t.warnOnce(\\\"This device does not support fullscreen mode.\\\")),this._container},An.prototype.onRemove=function(){s.remove(this._container),this._map=null,t.default.document.removeEventListener(this._fullscreenchange,this._changeIcon)},An.prototype._checkFullscreenSupport=function(){return!!(t.default.document.fullscreenEnabled||t.default.document.mozFullScreenEnabled||t.default.document.msFullscreenEnabled||t.default.document.webkitFullscreenEnabled)},An.prototype._setupUI=function(){var e=this._fullscreenButton=s.create(\\\"button\\\",this._className+\\\"-icon \\\"+this._className+\\\"-fullscreen\\\",this._container);e.setAttribute(\\\"aria-label\\\",\\\"Toggle fullscreen\\\"),e.type=\\\"button\\\",this._fullscreenButton.addEventListener(\\\"click\\\",this._onClickFullscreen),t.default.document.addEventListener(this._fullscreenchange,this._changeIcon)},An.prototype._isFullscreen=function(){return this._fullscreen},An.prototype._changeIcon=function(){(t.default.document.fullscreenElement||t.default.document.mozFullScreenElement||t.default.document.webkitFullscreenElement||t.default.document.msFullscreenElement)===this._mapContainer!==this._fullscreen&&(this._fullscreen=!this._fullscreen,this._fullscreenButton.classList.toggle(this._className+\\\"-shrink\\\"),this._fullscreenButton.classList.toggle(this._className+\\\"-fullscreen\\\"))},An.prototype._onClickFullscreen=function(){this._isFullscreen()?t.default.document.exitFullscreen?t.default.document.exitFullscreen():t.default.document.mozCancelFullScreen?t.default.document.mozCancelFullScreen():t.default.document.msExitFullscreen?t.default.document.msExitFullscreen():t.default.document.webkitCancelFullScreen&&t.default.document.webkitCancelFullScreen():this._mapContainer.requestFullscreen?this._mapContainer.requestFullscreen():this._mapContainer.mozRequestFullScreen?this._mapContainer.mozRequestFullScreen():this._mapContainer.msRequestFullscreen?this._mapContainer.msRequestFullscreen():this._mapContainer.webkitRequestFullscreen&&this._mapContainer.webkitRequestFullscreen()};var Mn={closeButton:!0,closeOnClick:!0},Sn=function(e){function r(r){e.call(this),this.options=t.extend(Object.create(Mn),r),t.bindAll([\\\"_update\\\",\\\"_onClickClose\\\"],this)}return e&&(r.__proto__=e),r.prototype=Object.create(e&&e.prototype),r.prototype.constructor=r,r.prototype.addTo=function(e){return this._map=e,this._map.on(\\\"move\\\",this._update),this.options.closeOnClick&&this._map.on(\\\"click\\\",this._onClickClose),this._update(),this.fire(new t.Event(\\\"open\\\")),this},r.prototype.isOpen=function(){return!!this._map},r.prototype.remove=function(){return this._content&&s.remove(this._content),this._container&&(s.remove(this._container),delete this._container),this._map&&(this._map.off(\\\"move\\\",this._update),this._map.off(\\\"click\\\",this._onClickClose),delete this._map),this.fire(new t.Event(\\\"close\\\")),this},r.prototype.getLngLat=function(){return this._lngLat},r.prototype.setLngLat=function(t){return this._lngLat=G.convert(t),this._pos=null,this._update(),this},r.prototype.setText=function(e){return this.setDOMContent(t.default.document.createTextNode(e))},r.prototype.setHTML=function(e){var r,n=t.default.document.createDocumentFragment(),i=t.default.document.createElement(\\\"body\\\");for(i.innerHTML=e;r=i.firstChild;)n.appendChild(r);return this.setDOMContent(n)},r.prototype.setDOMContent=function(t){return this._createContent(),this._content.appendChild(t),this._update(),this},r.prototype._createContent=function(){this._content&&s.remove(this._content),this._content=s.create(\\\"div\\\",\\\"mapboxgl-popup-content\\\",this._container),this.options.closeButton&&(this._closeButton=s.create(\\\"button\\\",\\\"mapboxgl-popup-close-button\\\",this._content),this._closeButton.type=\\\"button\\\",this._closeButton.setAttribute(\\\"aria-label\\\",\\\"Close popup\\\"),this._closeButton.innerHTML=\\\"&#215;\\\",this._closeButton.addEventListener(\\\"click\\\",this._onClickClose))},r.prototype._update=function(){if(this._map&&this._lngLat&&this._content){this._container||(this._container=s.create(\\\"div\\\",\\\"mapboxgl-popup\\\",this._map.getContainer()),this._tip=s.create(\\\"div\\\",\\\"mapboxgl-popup-tip\\\",this._container),this._container.appendChild(this._content)),this._map.transform.renderWorldCopies&&(this._lngLat=dn(this._lngLat,this._pos,this._map.transform));var e=this._pos=this._map.project(this._lngLat),r=this.options.anchor,n=function e(r){if(r){if(\\\"number\\\"==typeof r){var n=Math.round(Math.sqrt(.5*Math.pow(r,2)));return{center:new t.default$1(0,0),top:new t.default$1(0,r),\\\"top-left\\\":new t.default$1(n,n),\\\"top-right\\\":new t.default$1(-n,n),bottom:new t.default$1(0,-r),\\\"bottom-left\\\":new t.default$1(n,-n),\\\"bottom-right\\\":new t.default$1(-n,-n),left:new t.default$1(r,0),right:new t.default$1(-r,0)}}if(r instanceof t.default$1||Array.isArray(r)){var i=t.default$1.convert(r);return{center:i,top:i,\\\"top-left\\\":i,\\\"top-right\\\":i,bottom:i,\\\"bottom-left\\\":i,\\\"bottom-right\\\":i,left:i,right:i}}return{center:t.default$1.convert(r.center||[0,0]),top:t.default$1.convert(r.top||[0,0]),\\\"top-left\\\":t.default$1.convert(r[\\\"top-left\\\"]||[0,0]),\\\"top-right\\\":t.default$1.convert(r[\\\"top-right\\\"]||[0,0]),bottom:t.default$1.convert(r.bottom||[0,0]),\\\"bottom-left\\\":t.default$1.convert(r[\\\"bottom-left\\\"]||[0,0]),\\\"bottom-right\\\":t.default$1.convert(r[\\\"bottom-right\\\"]||[0,0]),left:t.default$1.convert(r.left||[0,0]),right:t.default$1.convert(r.right||[0,0])}}return e(new t.default$1(0,0))}(this.options.offset);if(!r){var i,a=this._container.offsetWidth,o=this._container.offsetHeight;i=e.y+n.bottom.y<o?[\\\"top\\\"]:e.y>this._map.transform.height-o?[\\\"bottom\\\"]:[],e.x<a/2?i.push(\\\"left\\\"):e.x>this._map.transform.width-a/2&&i.push(\\\"right\\\"),r=0===i.length?\\\"bottom\\\":i.join(\\\"-\\\")}var l=e.add(n[r]).round();s.setTransform(this._container,gn[r]+\\\" translate(\\\"+l.x+\\\"px,\\\"+l.y+\\\"px)\\\"),vn(this._container,r,\\\"popup\\\")}},r.prototype._onClickClose=function(){this.remove()},r}(t.Evented),En={version:\\\"0.45.0\\\",supported:e,workerCount:Math.max(Math.floor(a.hardwareConcurrency/2),1),setRTLTextPlugin:t.setRTLTextPlugin,Map:un,NavigationControl:pn,GeolocateControl:bn,AttributionControl:nn,ScaleControl:wn,FullscreenControl:An,Popup:Sn,Marker:mn,Style:Je,LngLat:G,LngLatBounds:Y,Point:t.default$1,Evented:t.Evented,config:v,get accessToken(){return v.ACCESS_TOKEN},set accessToken(t){v.ACCESS_TOKEN=t},workerUrl:\\\"\\\"};return En}),n})}).call(this,\\\"undefined\\\"!=typeof global?global:\\\"undefined\\\"!=typeof self?self:\\\"undefined\\\"!=typeof window?window:{})},{}],422:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){for(var e=1<<t+1,r=new Array(e),n=0;n<e;++n)r[n]=a(t,n);return r};var n=t(\\\"convex-hull\\\");function i(t,e,r){for(var n=new Array(t),i=0;i<t;++i)n[i]=0,i===e&&(n[i]+=.5),i===r&&(n[i]+=.5);return n}function a(t,e){if(0===e||e===(1<<t+1)-1)return[];for(var r=[],a=[],o=0;o<=t;++o)if(e&1<<o){r.push(i(t,o-1,o-1)),a.push(null);for(var s=0;s<=t;++s)~e&1<<s&&(r.push(i(t,o-1,s-1)),a.push([o,s]))}var l=n(r),c=[];t:for(o=0;o<l.length;++o){var u=l[o],f=[];for(s=0;s<u.length;++s){if(!a[u[s]])continue t;f.push(a[u[s]].slice())}c.push(f)}return c}},{\\\"convex-hull\\\":123}],423:[function(t,e,r){var n=t(\\\"./normalize\\\"),i=t(\\\"gl-mat4/create\\\"),a=t(\\\"gl-mat4/clone\\\"),o=t(\\\"gl-mat4/determinant\\\"),s=t(\\\"gl-mat4/invert\\\"),l=t(\\\"gl-mat4/transpose\\\"),c={length:t(\\\"gl-vec3/length\\\"),normalize:t(\\\"gl-vec3/normalize\\\"),dot:t(\\\"gl-vec3/dot\\\"),cross:t(\\\"gl-vec3/cross\\\")},u=i(),f=i(),h=[0,0,0,0],p=[[0,0,0],[0,0,0],[0,0,0]],d=[0,0,0];function g(t,e,r,n,i){t[0]=e[0]*n+r[0]*i,t[1]=e[1]*n+r[1]*i,t[2]=e[2]*n+r[2]*i}e.exports=function(t,e,r,i,v,m){if(e||(e=[0,0,0]),r||(r=[0,0,0]),i||(i=[0,0,0]),v||(v=[0,0,0,1]),m||(m=[0,0,0,1]),!n(u,t))return!1;if(a(f,u),f[3]=0,f[7]=0,f[11]=0,f[15]=1,Math.abs(o(f)<1e-8))return!1;var y,x,b,_,w,k,T,A=u[3],M=u[7],S=u[11],E=u[12],C=u[13],L=u[14],z=u[15];if(0!==A||0!==M||0!==S){if(h[0]=A,h[1]=M,h[2]=S,h[3]=z,!s(f,f))return!1;l(f,f),y=v,b=f,_=(x=h)[0],w=x[1],k=x[2],T=x[3],y[0]=b[0]*_+b[4]*w+b[8]*k+b[12]*T,y[1]=b[1]*_+b[5]*w+b[9]*k+b[13]*T,y[2]=b[2]*_+b[6]*w+b[10]*k+b[14]*T,y[3]=b[3]*_+b[7]*w+b[11]*k+b[15]*T}else v[0]=v[1]=v[2]=0,v[3]=1;if(e[0]=E,e[1]=C,e[2]=L,function(t,e){t[0][0]=e[0],t[0][1]=e[1],t[0][2]=e[2],t[1][0]=e[4],t[1][1]=e[5],t[1][2]=e[6],t[2][0]=e[8],t[2][1]=e[9],t[2][2]=e[10]}(p,u),r[0]=c.length(p[0]),c.normalize(p[0],p[0]),i[0]=c.dot(p[0],p[1]),g(p[1],p[1],p[0],1,-i[0]),r[1]=c.length(p[1]),c.normalize(p[1],p[1]),i[0]/=r[1],i[1]=c.dot(p[0],p[2]),g(p[2],p[2],p[0],1,-i[1]),i[2]=c.dot(p[1],p[2]),g(p[2],p[2],p[1],1,-i[2]),r[2]=c.length(p[2]),c.normalize(p[2],p[2]),i[1]/=r[2],i[2]/=r[2],c.cross(d,p[1],p[2]),c.dot(p[0],d)<0)for(var O=0;O<3;O++)r[O]*=-1,p[O][0]*=-1,p[O][1]*=-1,p[O][2]*=-1;return m[0]=.5*Math.sqrt(Math.max(1+p[0][0]-p[1][1]-p[2][2],0)),m[1]=.5*Math.sqrt(Math.max(1-p[0][0]+p[1][1]-p[2][2],0)),m[2]=.5*Math.sqrt(Math.max(1-p[0][0]-p[1][1]+p[2][2],0)),m[3]=.5*Math.sqrt(Math.max(1+p[0][0]+p[1][1]+p[2][2],0)),p[2][1]>p[1][2]&&(m[0]=-m[0]),p[0][2]>p[2][0]&&(m[1]=-m[1]),p[1][0]>p[0][1]&&(m[2]=-m[2]),!0}},{\\\"./normalize\\\":424,\\\"gl-mat4/clone\\\":258,\\\"gl-mat4/create\\\":259,\\\"gl-mat4/determinant\\\":260,\\\"gl-mat4/invert\\\":264,\\\"gl-mat4/transpose\\\":275,\\\"gl-vec3/cross\\\":329,\\\"gl-vec3/dot\\\":334,\\\"gl-vec3/length\\\":344,\\\"gl-vec3/normalize\\\":351}],424:[function(t,e,r){e.exports=function(t,e){var r=e[15];if(0===r)return!1;for(var n=1/r,i=0;i<16;i++)t[i]=e[i]*n;return!0}},{}],425:[function(t,e,r){var n=t(\\\"gl-vec3/lerp\\\"),i=t(\\\"mat4-recompose\\\"),a=t(\\\"mat4-decompose\\\"),o=t(\\\"gl-mat4/determinant\\\"),s=t(\\\"quat-slerp\\\"),l=f(),c=f(),u=f();function f(){return{translate:h(),scale:h(1),skew:h(),perspective:[0,0,0,1],quaternion:[0,0,0,1]}}function h(t){return[t||0,t||0,t||0]}e.exports=function(t,e,r,f){if(0===o(e)||0===o(r))return!1;var h=a(e,l.translate,l.scale,l.skew,l.perspective,l.quaternion),p=a(r,c.translate,c.scale,c.skew,c.perspective,c.quaternion);return!(!h||!p||(n(u.translate,l.translate,c.translate,f),n(u.skew,l.skew,c.skew,f),n(u.scale,l.scale,c.scale,f),n(u.perspective,l.perspective,c.perspective,f),s(u.quaternion,l.quaternion,c.quaternion,f),i(t,u.translate,u.scale,u.skew,u.perspective,u.quaternion),0))}},{\\\"gl-mat4/determinant\\\":260,\\\"gl-vec3/lerp\\\":345,\\\"mat4-decompose\\\":423,\\\"mat4-recompose\\\":426,\\\"quat-slerp\\\":478}],426:[function(t,e,r){var n={identity:t(\\\"gl-mat4/identity\\\"),translate:t(\\\"gl-mat4/translate\\\"),multiply:t(\\\"gl-mat4/multiply\\\"),create:t(\\\"gl-mat4/create\\\"),scale:t(\\\"gl-mat4/scale\\\"),fromRotationTranslation:t(\\\"gl-mat4/fromRotationTranslation\\\")},i=(n.create(),n.create());e.exports=function(t,e,r,a,o,s){return n.identity(t),n.fromRotationTranslation(t,s,e),t[3]=o[0],t[7]=o[1],t[11]=o[2],t[15]=o[3],n.identity(i),0!==a[2]&&(i[9]=a[2],n.multiply(t,t,i)),0!==a[1]&&(i[9]=0,i[8]=a[1],n.multiply(t,t,i)),0!==a[0]&&(i[8]=0,i[4]=a[0],n.multiply(t,t,i)),n.scale(t,t,r),t}},{\\\"gl-mat4/create\\\":259,\\\"gl-mat4/fromRotationTranslation\\\":262,\\\"gl-mat4/identity\\\":263,\\\"gl-mat4/multiply\\\":266,\\\"gl-mat4/scale\\\":273,\\\"gl-mat4/translate\\\":274}],427:[function(t,e,r){\\\"use strict\\\";e.exports=Math.log2||function(t){return Math.log(t)*Math.LOG2E}},{}],428:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"binary-search-bounds\\\"),i=t(\\\"mat4-interpolate\\\"),a=t(\\\"gl-mat4/invert\\\"),o=t(\\\"gl-mat4/rotateX\\\"),s=t(\\\"gl-mat4/rotateY\\\"),l=t(\\\"gl-mat4/rotateZ\\\"),c=t(\\\"gl-mat4/lookAt\\\"),u=t(\\\"gl-mat4/translate\\\"),f=(t(\\\"gl-mat4/scale\\\"),t(\\\"gl-vec3/normalize\\\")),h=[0,0,0];function p(t){this._components=t.slice(),this._time=[0],this.prevMatrix=t.slice(),this.nextMatrix=t.slice(),this.computedMatrix=t.slice(),this.computedInverse=t.slice(),this.computedEye=[0,0,0],this.computedUp=[0,0,0],this.computedCenter=[0,0,0],this.computedRadius=[0],this._limits=[-1/0,1/0]}e.exports=function(t){return new p((t=t||{}).matrix||[1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1])};var d=p.prototype;d.recalcMatrix=function(t){var e=this._time,r=n.le(e,t),o=this.computedMatrix;if(!(r<0)){var s=this._components;if(r===e.length-1)for(var l=16*r,c=0;c<16;++c)o[c]=s[l++];else{var u=e[r+1]-e[r],h=(l=16*r,this.prevMatrix),p=!0;for(c=0;c<16;++c)h[c]=s[l++];var d=this.nextMatrix;for(c=0;c<16;++c)d[c]=s[l++],p=p&&h[c]===d[c];if(u<1e-6||p)for(c=0;c<16;++c)o[c]=h[c];else i(o,h,d,(t-e[r])/u)}var g=this.computedUp;g[0]=o[1],g[1]=o[5],g[2]=o[9],f(g,g);var v=this.computedInverse;a(v,o);var m=this.computedEye,y=v[15];m[0]=v[12]/y,m[1]=v[13]/y,m[2]=v[14]/y;var x=this.computedCenter,b=Math.exp(this.computedRadius[0]);for(c=0;c<3;++c)x[c]=m[c]-o[2+4*c]*b}},d.idle=function(t){if(!(t<this.lastT())){for(var e=this._components,r=e.length-16,n=0;n<16;++n)e.push(e[r++]);this._time.push(t)}},d.flush=function(t){var e=n.gt(this._time,t)-2;e<0||(this._time.splice(0,e),this._components.splice(0,16*e))},d.lastT=function(){return this._time[this._time.length-1]},d.lookAt=function(t,e,r,n){this.recalcMatrix(t),e=e||this.computedEye,r=r||h,n=n||this.computedUp,this.setMatrix(t,c(this.computedMatrix,e,r,n));for(var i=0,a=0;a<3;++a)i+=Math.pow(r[a]-e[a],2);i=Math.log(Math.sqrt(i)),this.computedRadius[0]=i},d.rotate=function(t,e,r,n){this.recalcMatrix(t);var i=this.computedInverse;e&&s(i,i,e),r&&o(i,i,r),n&&l(i,i,n),this.setMatrix(t,a(this.computedMatrix,i))};var g=[0,0,0];d.pan=function(t,e,r,n){g[0]=-(e||0),g[1]=-(r||0),g[2]=-(n||0),this.recalcMatrix(t);var i=this.computedInverse;u(i,i,g),this.setMatrix(t,a(i,i))},d.translate=function(t,e,r,n){g[0]=e||0,g[1]=r||0,g[2]=n||0,this.recalcMatrix(t);var i=this.computedMatrix;u(i,i,g),this.setMatrix(t,i)},d.setMatrix=function(t,e){if(!(t<this.lastT())){this._time.push(t);for(var r=0;r<16;++r)this._components.push(e[r])}},d.setDistance=function(t,e){this.computedRadius[0]=e},d.setDistanceLimits=function(t,e){var r=this._limits;r[0]=t,r[1]=e},d.getDistanceLimits=function(t){var e=this._limits;return t?(t[0]=e[0],t[1]=e[1],t):e}},{\\\"binary-search-bounds\\\":84,\\\"gl-mat4/invert\\\":264,\\\"gl-mat4/lookAt\\\":265,\\\"gl-mat4/rotateX\\\":270,\\\"gl-mat4/rotateY\\\":271,\\\"gl-mat4/rotateZ\\\":272,\\\"gl-mat4/scale\\\":273,\\\"gl-mat4/translate\\\":274,\\\"gl-vec3/normalize\\\":351,\\\"mat4-interpolate\\\":425}],429:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=t.length;if(e<3){for(var r=new Array(e),i=0;i<e;++i)r[i]=i;return 2===e&&t[0][0]===t[1][0]&&t[0][1]===t[1][1]?[0]:r}for(var a=new Array(e),i=0;i<e;++i)a[i]=i;a.sort(function(e,r){var n=t[e][0]-t[r][0];return n||t[e][1]-t[r][1]});for(var o=[a[0],a[1]],s=[a[0],a[1]],i=2;i<e;++i){for(var l=a[i],c=t[l],u=o.length;u>1&&n(t[o[u-2]],t[o[u-1]],c)<=0;)u-=1,o.pop();for(o.push(l),u=s.length;u>1&&n(t[s[u-2]],t[s[u-1]],c)>=0;)u-=1,s.pop();s.push(l)}for(var r=new Array(s.length+o.length-2),f=0,i=0,h=o.length;i<h;++i)r[f++]=o[i];for(var p=s.length-2;p>0;--p)r[f++]=s[p];return r};var n=t(\\\"robust-orientation\\\")[3]},{\\\"robust-orientation\\\":497}],430:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){e||(e=t,t=window);var r=0,i=0,a=0,o={shift:!1,alt:!1,control:!1,meta:!1},s=!1;function l(t){var e=!1;return\\\"altKey\\\"in t&&(e=e||t.altKey!==o.alt,o.alt=!!t.altKey),\\\"shiftKey\\\"in t&&(e=e||t.shiftKey!==o.shift,o.shift=!!t.shiftKey),\\\"ctrlKey\\\"in t&&(e=e||t.ctrlKey!==o.control,o.control=!!t.ctrlKey),\\\"metaKey\\\"in t&&(e=e||t.metaKey!==o.meta,o.meta=!!t.metaKey),e}function c(t,s){var c=n.x(s),u=n.y(s);\\\"buttons\\\"in s&&(t=0|s.buttons),(t!==r||c!==i||u!==a||l(s))&&(r=0|t,i=c||0,a=u||0,e&&e(r,i,a,o))}function u(t){c(0,t)}function f(){(r||i||a||o.shift||o.alt||o.meta||o.control)&&(i=a=0,r=0,o.shift=o.alt=o.control=o.meta=!1,e&&e(0,0,0,o))}function h(t){l(t)&&e&&e(r,i,a,o)}function p(t){0===n.buttons(t)?c(0,t):c(r,t)}function d(t){c(r|n.buttons(t),t)}function g(t){c(r&~n.buttons(t),t)}function v(){s||(s=!0,t.addEventListener(\\\"mousemove\\\",p),t.addEventListener(\\\"mousedown\\\",d),t.addEventListener(\\\"mouseup\\\",g),t.addEventListener(\\\"mouseleave\\\",u),t.addEventListener(\\\"mouseenter\\\",u),t.addEventListener(\\\"mouseout\\\",u),t.addEventListener(\\\"mouseover\\\",u),t.addEventListener(\\\"blur\\\",f),t.addEventListener(\\\"keyup\\\",h),t.addEventListener(\\\"keydown\\\",h),t.addEventListener(\\\"keypress\\\",h),t!==window&&(window.addEventListener(\\\"blur\\\",f),window.addEventListener(\\\"keyup\\\",h),window.addEventListener(\\\"keydown\\\",h),window.addEventListener(\\\"keypress\\\",h)))}v();var m={element:t};return Object.defineProperties(m,{enabled:{get:function(){return s},set:function(e){e?v():s&&(s=!1,t.removeEventListener(\\\"mousemove\\\",p),t.removeEventListener(\\\"mousedown\\\",d),t.removeEventListener(\\\"mouseup\\\",g),t.removeEventListener(\\\"mouseleave\\\",u),t.removeEventListener(\\\"mouseenter\\\",u),t.removeEventListener(\\\"mouseout\\\",u),t.removeEventListener(\\\"mouseover\\\",u),t.removeEventListener(\\\"blur\\\",f),t.removeEventListener(\\\"keyup\\\",h),t.removeEventListener(\\\"keydown\\\",h),t.removeEventListener(\\\"keypress\\\",h),t!==window&&(window.removeEventListener(\\\"blur\\\",f),window.removeEventListener(\\\"keyup\\\",h),window.removeEventListener(\\\"keydown\\\",h),window.removeEventListener(\\\"keypress\\\",h)))},enumerable:!0},buttons:{get:function(){return r},enumerable:!0},x:{get:function(){return i},enumerable:!0},y:{get:function(){return a},enumerable:!0},mods:{get:function(){return o},enumerable:!0}}),m};var n=t(\\\"mouse-event\\\")},{\\\"mouse-event\\\":432}],431:[function(t,e,r){var n={left:0,top:0};e.exports=function(t,e,r){e=e||t.currentTarget||t.srcElement,Array.isArray(r)||(r=[0,0]);var i=t.clientX||0,a=t.clientY||0,o=(s=e,s===window||s===document||s===document.body?n:s.getBoundingClientRect());var s;return r[0]=i-o.left,r[1]=a-o.top,r}},{}],432:[function(t,e,r){\\\"use strict\\\";function n(t){return t.target||t.srcElement||window}r.buttons=function(t){if(\\\"object\\\"==typeof t){if(\\\"buttons\\\"in t)return t.buttons;if(\\\"which\\\"in t){if(2===(e=t.which))return 4;if(3===e)return 2;if(e>0)return 1<<e-1}else if(\\\"button\\\"in t){var e;if(1===(e=t.button))return 4;if(2===e)return 2;if(e>=0)return 1<<e}}return 0},r.element=n,r.x=function(t){if(\\\"object\\\"==typeof t){if(\\\"offsetX\\\"in t)return t.offsetX;var e=n(t).getBoundingClientRect();return t.clientX-e.left}return 0},r.y=function(t){if(\\\"object\\\"==typeof t){if(\\\"offsetY\\\"in t)return t.offsetY;var e=n(t).getBoundingClientRect();return t.clientY-e.top}return 0}},{}],433:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"to-px\\\");e.exports=function(t,e,r){\\\"function\\\"==typeof t&&(r=!!e,e=t,t=window);var i=n(\\\"ex\\\",t),a=function(t){r&&t.preventDefault();var n=t.deltaX||0,a=t.deltaY||0,o=t.deltaZ||0,s=t.deltaMode,l=1;switch(s){case 1:l=i;break;case 2:l=window.innerHeight}if(a*=l,o*=l,(n*=l)||a||o)return e(n,a,o,t)};return t.addEventListener(\\\"wheel\\\",a),a}},{\\\"to-px\\\":526}],434:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"typedarray-pool\\\");function i(t){return\\\"a\\\"+t}function a(t){return\\\"d\\\"+t}function o(t,e){return\\\"c\\\"+t+\\\"_\\\"+e}function s(t){return\\\"s\\\"+t}function l(t,e){return\\\"t\\\"+t+\\\"_\\\"+e}function c(t){return\\\"o\\\"+t}function u(t){return\\\"x\\\"+t}function f(t){return\\\"p\\\"+t}function h(t,e){return\\\"d\\\"+t+\\\"_\\\"+e}function p(t){return\\\"i\\\"+t}function d(t,e){return\\\"u\\\"+t+\\\"_\\\"+e}function g(t){return\\\"b\\\"+t}function v(t){return\\\"y\\\"+t}function m(t){return\\\"e\\\"+t}function y(t){return\\\"v\\\"+t}e.exports=function(t){function e(t){throw new Error(\\\"ndarray-extract-contour: \\\"+t)}\\\"object\\\"!=typeof t&&e(\\\"Must specify arguments\\\");var r=t.order;Array.isArray(r)||e(\\\"Must specify order\\\");var M=t.arrayArguments||1;M<1&&e(\\\"Must have at least one array argument\\\");var S=t.scalarArguments||0;S<0&&e(\\\"Scalar arg count must be > 0\\\");\\\"function\\\"!=typeof t.vertex&&e(\\\"Must specify vertex creation function\\\");\\\"function\\\"!=typeof t.cell&&e(\\\"Must specify cell creation function\\\");\\\"function\\\"!=typeof t.phase&&e(\\\"Must specify phase function\\\");for(var E=t.getters||[],C=new Array(M),L=0;L<M;++L)E.indexOf(L)>=0?C[L]=!0:C[L]=!1;return function(t,e,r,M,S,E){var C=E.length,L=S.length;if(L<2)throw new Error(\\\"ndarray-extract-contour: Dimension must be at least 2\\\");for(var z=\\\"extractContour\\\"+S.join(\\\"_\\\"),O=[],I=[],D=[],P=0;P<C;++P)D.push(i(P));for(var P=0;P<M;++P)D.push(u(P));for(var P=0;P<L;++P)I.push(s(P)+\\\"=\\\"+i(0)+\\\".shape[\\\"+P+\\\"]|0\\\");for(var P=0;P<C;++P){I.push(a(P)+\\\"=\\\"+i(P)+\\\".data\\\",c(P)+\\\"=\\\"+i(P)+\\\".offset|0\\\");for(var R=0;R<L;++R)I.push(l(P,R)+\\\"=\\\"+i(P)+\\\".stride[\\\"+R+\\\"]|0\\\")}for(var P=0;P<C;++P){I.push(f(P)+\\\"=\\\"+c(P)),I.push(o(P,0));for(var R=1;R<1<<L;++R){for(var F=[],B=0;B<L;++B)R&1<<B&&F.push(\\\"-\\\"+l(P,B));I.push(h(P,R)+\\\"=(\\\"+F.join(\\\"\\\")+\\\")|0\\\"),I.push(o(P,R)+\\\"=0\\\")}}for(var P=0;P<C;++P)for(var R=0;R<L;++R){var N=[l(P,S[R])];R>0&&N.push(l(P,S[R-1])+\\\"*\\\"+s(S[R-1])),I.push(d(P,S[R])+\\\"=(\\\"+N.join(\\\"-\\\")+\\\")|0\\\")}for(var P=0;P<L;++P)I.push(p(P)+\\\"=0\\\");I.push(_+\\\"=0\\\");for(var j=[\\\"2\\\"],P=L-2;P>=0;--P)j.push(s(S[P]));I.push(w+\\\"=(\\\"+j.join(\\\"*\\\")+\\\")|0\\\",b+\\\"=mallocUint32(\\\"+w+\\\")\\\",x+\\\"=mallocUint32(\\\"+w+\\\")\\\",k+\\\"=0\\\"),I.push(g(0)+\\\"=0\\\");for(var R=1;R<1<<L;++R){for(var V=[],U=[],B=0;B<L;++B)R&1<<B&&(0===U.length?V.push(\\\"1\\\"):V.unshift(U.join(\\\"*\\\"))),U.push(s(S[B]));var H=\\\"\\\";V[0].indexOf(s(S[L-2]))<0&&(H=\\\"-\\\");var q=A(L,R,S);I.push(m(q)+\\\"=(-\\\"+V.join(\\\"-\\\")+\\\")|0\\\",v(q)+\\\"=(\\\"+H+V.join(\\\"-\\\")+\\\")|0\\\",g(q)+\\\"=0\\\")}function G(t,e){O.push(\\\"for(\\\",p(S[t]),\\\"=\\\",e,\\\";\\\",p(S[t]),\\\"<\\\",s(S[t]),\\\";\\\",\\\"++\\\",p(S[t]),\\\"){\\\")}function Y(t){for(var e=0;e<C;++e)O.push(f(e),\\\"+=\\\",d(e,S[t]),\\\";\\\");O.push(\\\"}\\\")}function W(){for(var t=1;t<1<<L;++t)O.push(T,\\\"=\\\",m(t),\\\";\\\",m(t),\\\"=\\\",v(t),\\\";\\\",v(t),\\\"=\\\",T,\\\";\\\")}I.push(y(0)+\\\"=0\\\",T+\\\"=0\\\"),function t(e,r){if(e<0)return void function(t){for(var e=0;e<C;++e)E[e]?O.push(o(e,0),\\\"=\\\",a(e),\\\".get(\\\",f(e),\\\");\\\"):O.push(o(e,0),\\\"=\\\",a(e),\\\"[\\\",f(e),\\\"];\\\");for(var r=[],e=0;e<C;++e)r.push(o(e,0));for(var e=0;e<M;++e)r.push(u(e));O.push(g(0),\\\"=\\\",b,\\\"[\\\",k,\\\"]=phase(\\\",r.join(),\\\");\\\");for(var n=1;n<1<<L;++n)O.push(g(n),\\\"=\\\",b,\\\"[\\\",k,\\\"+\\\",m(n),\\\"];\\\");for(var i=[],n=1;n<1<<L;++n)i.push(\\\"(\\\"+g(0)+\\\"!==\\\"+g(n)+\\\")\\\");O.push(\\\"if(\\\",i.join(\\\"||\\\"),\\\"){\\\");for(var s=[],e=0;e<L;++e)s.push(p(e));for(var e=0;e<C;++e){s.push(o(e,0));for(var n=1;n<1<<L;++n)E[e]?O.push(o(e,n),\\\"=\\\",a(e),\\\".get(\\\",f(e),\\\"+\\\",h(e,n),\\\");\\\"):O.push(o(e,n),\\\"=\\\",a(e),\\\"[\\\",f(e),\\\"+\\\",h(e,n),\\\"];\\\"),s.push(o(e,n))}for(var e=0;e<1<<L;++e)s.push(g(e));for(var e=0;e<M;++e)s.push(u(e));O.push(\\\"vertex(\\\",s.join(),\\\");\\\",y(0),\\\"=\\\",x,\\\"[\\\",k,\\\"]=\\\",_,\\\"++;\\\");for(var l=(1<<L)-1,c=g(l),n=0;n<L;++n)if(0==(t&~(1<<n))){for(var d=l^1<<n,v=g(d),w=[],T=d;T>0;T=T-1&d)w.push(x+\\\"[\\\"+k+\\\"+\\\"+m(T)+\\\"]\\\");w.push(y(0));for(var T=0;T<C;++T)1&n?w.push(o(T,l),o(T,d)):w.push(o(T,d),o(T,l));1&n?w.push(c,v):w.push(v,c);for(var T=0;T<M;++T)w.push(u(T));O.push(\\\"if(\\\",c,\\\"!==\\\",v,\\\"){\\\",\\\"face(\\\",w.join(),\\\")}\\\")}O.push(\\\"}\\\",k,\\\"+=1;\\\")}(r);!function(t){for(var e=t-1;e>=0;--e)G(e,0);for(var r=[],e=0;e<C;++e)E[e]?r.push(a(e)+\\\".get(\\\"+f(e)+\\\")\\\"):r.push(a(e)+\\\"[\\\"+f(e)+\\\"]\\\");for(var e=0;e<M;++e)r.push(u(e));O.push(b,\\\"[\\\",k,\\\"++]=phase(\\\",r.join(),\\\");\\\");for(var e=0;e<t;++e)Y(e);for(var n=0;n<C;++n)O.push(f(n),\\\"+=\\\",d(n,S[t]),\\\";\\\")}(e);O.push(\\\"if(\\\",s(S[e]),\\\">0){\\\",p(S[e]),\\\"=1;\\\");t(e-1,r|1<<S[e]);for(var n=0;n<C;++n)O.push(f(n),\\\"+=\\\",d(n,S[e]),\\\";\\\");e===L-1&&(O.push(k,\\\"=0;\\\"),W());G(e,2);t(e-1,r);e===L-1&&(O.push(\\\"if(\\\",p(S[L-1]),\\\"&1){\\\",k,\\\"=0;}\\\"),W());Y(e);O.push(\\\"}\\\")}(L-1,0),O.push(\\\"freeUint32(\\\",x,\\\");freeUint32(\\\",b,\\\");\\\");var X=[\\\"'use strict';\\\",\\\"function \\\",z,\\\"(\\\",D.join(),\\\"){\\\",\\\"var \\\",I.join(),\\\";\\\",O.join(\\\"\\\"),\\\"}\\\",\\\"return \\\",z].join(\\\"\\\");return new Function(\\\"vertex\\\",\\\"face\\\",\\\"phase\\\",\\\"mallocUint32\\\",\\\"freeUint32\\\",X)(t,e,r,n.mallocUint32,n.freeUint32)}(t.vertex,t.cell,t.phase,S,r,C)};var x=\\\"V\\\",b=\\\"P\\\",_=\\\"N\\\",w=\\\"Q\\\",k=\\\"X\\\",T=\\\"T\\\";function A(t,e,r){for(var n=0,i=0;i<t;++i)e&1<<i&&(n|=1<<r[i]);return n}},{\\\"typedarray-pool\\\":532}],435:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"cwise/lib/wrapper\\\")({args:[\\\"index\\\",\\\"array\\\",\\\"scalar\\\"],pre:{body:\\\"{}\\\",args:[],thisVars:[],localVars:[]},body:{body:\\\"{_inline_1_arg1_=_inline_1_arg2_.apply(void 0,_inline_1_arg0_)}\\\",args:[{name:\\\"_inline_1_arg0_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_1_arg1_\\\",lvalue:!0,rvalue:!1,count:1},{name:\\\"_inline_1_arg2_\\\",lvalue:!1,rvalue:!0,count:1}],thisVars:[],localVars:[]},post:{body:\\\"{}\\\",args:[],thisVars:[],localVars:[]},debug:!1,funcName:\\\"cwise\\\",blockSize:64});e.exports=function(t,e){return n(t,e),t}},{\\\"cwise/lib/wrapper\\\":142}],436:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){if(Array.isArray(r)){if(r.length!==e.dimension)throw new Error(\\\"ndarray-gradient: invalid boundary conditions\\\")}else r=n(e.dimension,\\\"string\\\"==typeof r?r:\\\"clamp\\\");if(t.dimension!==e.dimension+1)throw new Error(\\\"ndarray-gradient: output dimension must be +1 input dimension\\\");if(t.shape[e.dimension]!==e.dimension)throw new Error(\\\"ndarray-gradient: output shape must match input shape\\\");for(var i=0;i<e.dimension;++i)if(t.shape[i]!==e.shape[i])throw new Error(\\\"ndarray-gradient: shape mismatch\\\");if(0===e.size)return t;if(e.dimension<=0)return t.set(0),t;return function(t){var e=t.join();if(m=o[e])return m;var r=t.length,n=[\\\"function gradient(dst,src){var s=src.shape.slice();\\\"];function i(e){for(var i=r-e.length,a=[],o=[],s=[],l=0;l<r;++l)e.indexOf(l+1)>=0?s.push(\\\"0\\\"):e.indexOf(-(l+1))>=0?s.push(\\\"s[\\\"+l+\\\"]-1\\\"):(s.push(\\\"-1\\\"),a.push(\\\"1\\\"),o.push(\\\"s[\\\"+l+\\\"]-2\\\"));var c=\\\".lo(\\\"+a.join()+\\\").hi(\\\"+o.join()+\\\")\\\";if(0===a.length&&(c=\\\"\\\"),i>0){n.push(\\\"if(1\\\");for(var l=0;l<r;++l)e.indexOf(l+1)>=0||e.indexOf(-(l+1))>=0||n.push(\\\"&&s[\\\",l,\\\"]>2\\\");n.push(\\\"){grad\\\",i,\\\"(src.pick(\\\",s.join(),\\\")\\\",c);for(var l=0;l<r;++l)e.indexOf(l+1)>=0||e.indexOf(-(l+1))>=0||n.push(\\\",dst.pick(\\\",s.join(),\\\",\\\",l,\\\")\\\",c);n.push(\\\");\\\")}for(var l=0;l<e.length;++l){var u=Math.abs(e[l])-1,f=\\\"dst.pick(\\\"+s.join()+\\\",\\\"+u+\\\")\\\"+c;switch(t[u]){case\\\"clamp\\\":var h=s.slice(),p=s.slice();e[l]<0?h[u]=\\\"s[\\\"+u+\\\"]-2\\\":p[u]=\\\"1\\\",0===i?n.push(\\\"if(s[\\\",u,\\\"]>1){dst.set(\\\",s.join(),\\\",\\\",u,\\\",0.5*(src.get(\\\",h.join(),\\\")-src.get(\\\",p.join(),\\\")))}else{dst.set(\\\",s.join(),\\\",\\\",u,\\\",0)};\\\"):n.push(\\\"if(s[\\\",u,\\\"]>1){diff(\\\",f,\\\",src.pick(\\\",h.join(),\\\")\\\",c,\\\",src.pick(\\\",p.join(),\\\")\\\",c,\\\");}else{zero(\\\",f,\\\");};\\\");break;case\\\"mirror\\\":0===i?n.push(\\\"dst.set(\\\",s.join(),\\\",\\\",u,\\\",0);\\\"):n.push(\\\"zero(\\\",f,\\\");\\\");break;case\\\"wrap\\\":var d=s.slice(),g=s.slice();e[l]<0?(d[u]=\\\"s[\\\"+u+\\\"]-2\\\",g[u]=\\\"0\\\"):(d[u]=\\\"s[\\\"+u+\\\"]-1\\\",g[u]=\\\"1\\\"),0===i?n.push(\\\"if(s[\\\",u,\\\"]>2){dst.set(\\\",s.join(),\\\",\\\",u,\\\",0.5*(src.get(\\\",d.join(),\\\")-src.get(\\\",g.join(),\\\")))}else{dst.set(\\\",s.join(),\\\",\\\",u,\\\",0)};\\\"):n.push(\\\"if(s[\\\",u,\\\"]>2){diff(\\\",f,\\\",src.pick(\\\",d.join(),\\\")\\\",c,\\\",src.pick(\\\",g.join(),\\\")\\\",c,\\\");}else{zero(\\\",f,\\\");};\\\");break;default:throw new Error(\\\"ndarray-gradient: Invalid boundary condition\\\")}}i>0&&n.push(\\\"};\\\")}for(var s=0;s<1<<r;++s){for(var f=[],h=0;h<r;++h)s&1<<h&&f.push(h+1);for(var p=0;p<1<<f.length;++p){for(var d=f.slice(),h=0;h<f.length;++h)p&1<<h&&(d[h]=-d[h]);i(d)}}n.push(\\\"return dst;};return gradient\\\");for(var g=[\\\"diff\\\",\\\"zero\\\"],v=[l,c],s=1;s<=r;++s)g.push(\\\"grad\\\"+s),v.push(u(s));g.push(n.join(\\\"\\\"));var m=Function.apply(void 0,g).apply(void 0,v);return a[e]=m,m}(r)(t,e)};var n=t(\\\"dup\\\"),i=t(\\\"cwise-compiler\\\"),a={},o={},s={body:\\\"\\\",args:[],thisVars:[],localVars:[]},l=i({args:[\\\"array\\\",\\\"array\\\",\\\"array\\\"],pre:s,post:s,body:{args:[{name:\\\"out\\\",lvalue:!0,rvalue:!1,count:1},{name:\\\"left\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"right\\\",lvalue:!1,rvalue:!0,count:1}],body:\\\"out=0.5*(left-right)\\\",thisVars:[],localVars:[]},funcName:\\\"cdiff\\\"}),c=i({args:[\\\"array\\\"],pre:s,post:s,body:{args:[{name:\\\"out\\\",lvalue:!0,rvalue:!1,count:1}],body:\\\"out=0\\\",thisVars:[],localVars:[]},funcName:\\\"zero\\\"});function u(t){if(t in a)return a[t];for(var e=[],r=0;r<t;++r)e.push(\\\"out\\\",r,\\\"s=0.5*(inp\\\",r,\\\"l-inp\\\",r,\\\"r);\\\");var o=[\\\"array\\\"],l=[\\\"junk\\\"];for(r=0;r<t;++r){o.push(\\\"array\\\"),l.push(\\\"out\\\"+r+\\\"s\\\");var c=n(t);c[r]=-1,o.push({array:0,offset:c.slice()}),c[r]=1,o.push({array:0,offset:c.slice()}),l.push(\\\"inp\\\"+r+\\\"l\\\",\\\"inp\\\"+r+\\\"r\\\")}return a[t]=i({args:o,pre:s,post:s,body:{body:e.join(\\\"\\\"),args:l.map(function(t){return{name:t,lvalue:0===t.indexOf(\\\"out\\\"),rvalue:0===t.indexOf(\\\"inp\\\"),count:\\\"junk\\\"!==t|0}}),thisVars:[],localVars:[]},funcName:\\\"fdTemplate\\\"+t})}},{\\\"cwise-compiler\\\":139,dup:164}],437:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"ndarray-warp\\\"),i=t(\\\"gl-matrix-invert\\\");e.exports=function(t,e,r){var a=e.dimension,o=i([],r);return n(t,e,function(t,e){for(var r=0;r<a;++r){t[r]=o[(a+1)*a+r];for(var n=0;n<a;++n)t[r]+=o[(a+1)*n+r]*e[n]}var i=o[(a+1)*(a+1)-1];for(n=0;n<a;++n)i+=o[(a+1)*n+a]*e[n];var s=1/i;for(r=0;r<a;++r)t[r]*=s;return t}),t}},{\\\"gl-matrix-invert\\\":276,\\\"ndarray-warp\\\":444}],438:[function(t,e,r){\\\"use strict\\\";function n(t,e){var r=Math.floor(e),n=e-r,i=0<=r&&r<t.shape[0],a=0<=r+1&&r+1<t.shape[0];return(1-n)*(i?+t.get(r):0)+n*(a?+t.get(r+1):0)}function i(t,e,r){var n=Math.floor(e),i=e-n,a=0<=n&&n<t.shape[0],o=0<=n+1&&n+1<t.shape[0],s=Math.floor(r),l=r-s,c=0<=s&&s<t.shape[1],u=0<=s+1&&s+1<t.shape[1],f=a&&c?t.get(n,s):0,h=a&&u?t.get(n,s+1):0;return(1-l)*((1-i)*f+i*(o&&c?t.get(n+1,s):0))+l*((1-i)*h+i*(o&&u?t.get(n+1,s+1):0))}function a(t,e,r,n){var i=Math.floor(e),a=e-i,o=0<=i&&i<t.shape[0],s=0<=i+1&&i+1<t.shape[0],l=Math.floor(r),c=r-l,u=0<=l&&l<t.shape[1],f=0<=l+1&&l+1<t.shape[1],h=Math.floor(n),p=n-h,d=0<=h&&h<t.shape[2],g=0<=h+1&&h+1<t.shape[2],v=o&&u&&d?t.get(i,l,h):0,m=o&&f&&d?t.get(i,l+1,h):0,y=s&&u&&d?t.get(i+1,l,h):0,x=s&&f&&d?t.get(i+1,l+1,h):0,b=o&&u&&g?t.get(i,l,h+1):0,_=o&&f&&g?t.get(i,l+1,h+1):0;return(1-p)*((1-c)*((1-a)*v+a*y)+c*((1-a)*m+a*x))+p*((1-c)*((1-a)*b+a*(s&&u&&g?t.get(i+1,l,h+1):0))+c*((1-a)*_+a*(s&&f&&g?t.get(i+1,l+1,h+1):0)))}e.exports=function(t,e,r,o){switch(t.shape.length){case 0:return 0;case 1:return n(t,e);case 2:return i(t,e,r);case 3:return a(t,e,r,o);default:return function(t){var e,r,n=0|t.shape.length,i=new Array(n),a=new Array(n),o=new Array(n),s=new Array(n);for(e=0;e<n;++e)r=+arguments[e+1],i[e]=Math.floor(r),a[e]=r-i[e],o[e]=0<=i[e]&&i[e]<t.shape[e],s[e]=0<=i[e]+1&&i[e]+1<t.shape[e];var l,c,u,f=0;t:for(e=0;e<1<<n;++e){for(c=1,u=t.offset,l=0;l<n;++l)if(e&1<<l){if(!s[l])continue t;c*=a[l],u+=t.stride[l]*(i[l]+1)}else{if(!o[l])continue t;c*=1-a[l],u+=t.stride[l]*i[l]}f+=c*t.data[u]}return f}.apply(void 0,arguments)}},e.exports.d1=n,e.exports.d2=i,e.exports.d3=a},{}],439:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"cwise-compiler\\\"),i={body:\\\"\\\",args:[],thisVars:[],localVars:[]};function a(t){if(!t)return i;for(var e=0;e<t.args.length;++e){var r=t.args[e];t.args[e]=0===e?{name:r,lvalue:!0,rvalue:!!t.rvalue,count:t.count||1}:{name:r,lvalue:!1,rvalue:!0,count:1}}return t.thisVars||(t.thisVars=[]),t.localVars||(t.localVars=[]),t}function o(t){for(var e=[],r=0;r<t.args.length;++r)e.push(\\\"a\\\"+r);return new Function(\\\"P\\\",[\\\"return function \\\",t.funcName,\\\"_ndarrayops(\\\",e.join(\\\",\\\"),\\\") {P(\\\",e.join(\\\",\\\"),\\\");return a0}\\\"].join(\\\"\\\"))(function(t){return n({args:t.args,pre:a(t.pre),body:a(t.body),post:a(t.proc),funcName:t.funcName})}(t))}var s={add:\\\"+\\\",sub:\\\"-\\\",mul:\\\"*\\\",div:\\\"/\\\",mod:\\\"%\\\",band:\\\"&\\\",bor:\\\"|\\\",bxor:\\\"^\\\",lshift:\\\"<<\\\",rshift:\\\">>\\\",rrshift:\\\">>>\\\"};!function(){for(var t in s){var e=s[t];r[t]=o({args:[\\\"array\\\",\\\"array\\\",\\\"array\\\"],body:{args:[\\\"a\\\",\\\"b\\\",\\\"c\\\"],body:\\\"a=b\\\"+e+\\\"c\\\"},funcName:t}),r[t+\\\"eq\\\"]=o({args:[\\\"array\\\",\\\"array\\\"],body:{args:[\\\"a\\\",\\\"b\\\"],body:\\\"a\\\"+e+\\\"=b\\\"},rvalue:!0,funcName:t+\\\"eq\\\"}),r[t+\\\"s\\\"]=o({args:[\\\"array\\\",\\\"array\\\",\\\"scalar\\\"],body:{args:[\\\"a\\\",\\\"b\\\",\\\"s\\\"],body:\\\"a=b\\\"+e+\\\"s\\\"},funcName:t+\\\"s\\\"}),r[t+\\\"seq\\\"]=o({args:[\\\"array\\\",\\\"scalar\\\"],body:{args:[\\\"a\\\",\\\"s\\\"],body:\\\"a\\\"+e+\\\"=s\\\"},rvalue:!0,funcName:t+\\\"seq\\\"})}}();var l={not:\\\"!\\\",bnot:\\\"~\\\",neg:\\\"-\\\",recip:\\\"1.0/\\\"};!function(){for(var t in l){var e=l[t];r[t]=o({args:[\\\"array\\\",\\\"array\\\"],body:{args:[\\\"a\\\",\\\"b\\\"],body:\\\"a=\\\"+e+\\\"b\\\"},funcName:t}),r[t+\\\"eq\\\"]=o({args:[\\\"array\\\"],body:{args:[\\\"a\\\"],body:\\\"a=\\\"+e+\\\"a\\\"},rvalue:!0,count:2,funcName:t+\\\"eq\\\"})}}();var c={and:\\\"&&\\\",or:\\\"||\\\",eq:\\\"===\\\",neq:\\\"!==\\\",lt:\\\"<\\\",gt:\\\">\\\",leq:\\\"<=\\\",geq:\\\">=\\\"};!function(){for(var t in c){var e=c[t];r[t]=o({args:[\\\"array\\\",\\\"array\\\",\\\"array\\\"],body:{args:[\\\"a\\\",\\\"b\\\",\\\"c\\\"],body:\\\"a=b\\\"+e+\\\"c\\\"},funcName:t}),r[t+\\\"s\\\"]=o({args:[\\\"array\\\",\\\"array\\\",\\\"scalar\\\"],body:{args:[\\\"a\\\",\\\"b\\\",\\\"s\\\"],body:\\\"a=b\\\"+e+\\\"s\\\"},funcName:t+\\\"s\\\"}),r[t+\\\"eq\\\"]=o({args:[\\\"array\\\",\\\"array\\\"],body:{args:[\\\"a\\\",\\\"b\\\"],body:\\\"a=a\\\"+e+\\\"b\\\"},rvalue:!0,count:2,funcName:t+\\\"eq\\\"}),r[t+\\\"seq\\\"]=o({args:[\\\"array\\\",\\\"scalar\\\"],body:{args:[\\\"a\\\",\\\"s\\\"],body:\\\"a=a\\\"+e+\\\"s\\\"},rvalue:!0,count:2,funcName:t+\\\"seq\\\"})}}();var u=[\\\"abs\\\",\\\"acos\\\",\\\"asin\\\",\\\"atan\\\",\\\"ceil\\\",\\\"cos\\\",\\\"exp\\\",\\\"floor\\\",\\\"log\\\",\\\"round\\\",\\\"sin\\\",\\\"sqrt\\\",\\\"tan\\\"];!function(){for(var t=0;t<u.length;++t){var e=u[t];r[e]=o({args:[\\\"array\\\",\\\"array\\\"],pre:{args:[],body:\\\"this_f=Math.\\\"+e,thisVars:[\\\"this_f\\\"]},body:{args:[\\\"a\\\",\\\"b\\\"],body:\\\"a=this_f(b)\\\",thisVars:[\\\"this_f\\\"]},funcName:e}),r[e+\\\"eq\\\"]=o({args:[\\\"array\\\"],pre:{args:[],body:\\\"this_f=Math.\\\"+e,thisVars:[\\\"this_f\\\"]},body:{args:[\\\"a\\\"],body:\\\"a=this_f(a)\\\",thisVars:[\\\"this_f\\\"]},rvalue:!0,count:2,funcName:e+\\\"eq\\\"})}}();var f=[\\\"max\\\",\\\"min\\\",\\\"atan2\\\",\\\"pow\\\"];!function(){for(var t=0;t<f.length;++t){var e=f[t];r[e]=o({args:[\\\"array\\\",\\\"array\\\",\\\"array\\\"],pre:{args:[],body:\\\"this_f=Math.\\\"+e,thisVars:[\\\"this_f\\\"]},body:{args:[\\\"a\\\",\\\"b\\\",\\\"c\\\"],body:\\\"a=this_f(b,c)\\\",thisVars:[\\\"this_f\\\"]},funcName:e}),r[e+\\\"s\\\"]=o({args:[\\\"array\\\",\\\"array\\\",\\\"scalar\\\"],pre:{args:[],body:\\\"this_f=Math.\\\"+e,thisVars:[\\\"this_f\\\"]},body:{args:[\\\"a\\\",\\\"b\\\",\\\"c\\\"],body:\\\"a=this_f(b,c)\\\",thisVars:[\\\"this_f\\\"]},funcName:e+\\\"s\\\"}),r[e+\\\"eq\\\"]=o({args:[\\\"array\\\",\\\"array\\\"],pre:{args:[],body:\\\"this_f=Math.\\\"+e,thisVars:[\\\"this_f\\\"]},body:{args:[\\\"a\\\",\\\"b\\\"],body:\\\"a=this_f(a,b)\\\",thisVars:[\\\"this_f\\\"]},rvalue:!0,count:2,funcName:e+\\\"eq\\\"}),r[e+\\\"seq\\\"]=o({args:[\\\"array\\\",\\\"scalar\\\"],pre:{args:[],body:\\\"this_f=Math.\\\"+e,thisVars:[\\\"this_f\\\"]},body:{args:[\\\"a\\\",\\\"b\\\"],body:\\\"a=this_f(a,b)\\\",thisVars:[\\\"this_f\\\"]},rvalue:!0,count:2,funcName:e+\\\"seq\\\"})}}();var h=[\\\"atan2\\\",\\\"pow\\\"];!function(){for(var t=0;t<h.length;++t){var e=h[t];r[e+\\\"op\\\"]=o({args:[\\\"array\\\",\\\"array\\\",\\\"array\\\"],pre:{args:[],body:\\\"this_f=Math.\\\"+e,thisVars:[\\\"this_f\\\"]},body:{args:[\\\"a\\\",\\\"b\\\",\\\"c\\\"],body:\\\"a=this_f(c,b)\\\",thisVars:[\\\"this_f\\\"]},funcName:e+\\\"op\\\"}),r[e+\\\"ops\\\"]=o({args:[\\\"array\\\",\\\"array\\\",\\\"scalar\\\"],pre:{args:[],body:\\\"this_f=Math.\\\"+e,thisVars:[\\\"this_f\\\"]},body:{args:[\\\"a\\\",\\\"b\\\",\\\"c\\\"],body:\\\"a=this_f(c,b)\\\",thisVars:[\\\"this_f\\\"]},funcName:e+\\\"ops\\\"}),r[e+\\\"opeq\\\"]=o({args:[\\\"array\\\",\\\"array\\\"],pre:{args:[],body:\\\"this_f=Math.\\\"+e,thisVars:[\\\"this_f\\\"]},body:{args:[\\\"a\\\",\\\"b\\\"],body:\\\"a=this_f(b,a)\\\",thisVars:[\\\"this_f\\\"]},rvalue:!0,count:2,funcName:e+\\\"opeq\\\"}),r[e+\\\"opseq\\\"]=o({args:[\\\"array\\\",\\\"scalar\\\"],pre:{args:[],body:\\\"this_f=Math.\\\"+e,thisVars:[\\\"this_f\\\"]},body:{args:[\\\"a\\\",\\\"b\\\"],body:\\\"a=this_f(b,a)\\\",thisVars:[\\\"this_f\\\"]},rvalue:!0,count:2,funcName:e+\\\"opseq\\\"})}}(),r.any=n({args:[\\\"array\\\"],pre:i,body:{args:[{name:\\\"a\\\",lvalue:!1,rvalue:!0,count:1}],body:\\\"if(a){return true}\\\",localVars:[],thisVars:[]},post:{args:[],localVars:[],thisVars:[],body:\\\"return false\\\"},funcName:\\\"any\\\"}),r.all=n({args:[\\\"array\\\"],pre:i,body:{args:[{name:\\\"x\\\",lvalue:!1,rvalue:!0,count:1}],body:\\\"if(!x){return false}\\\",localVars:[],thisVars:[]},post:{args:[],localVars:[],thisVars:[],body:\\\"return true\\\"},funcName:\\\"all\\\"}),r.sum=n({args:[\\\"array\\\"],pre:{args:[],localVars:[],thisVars:[\\\"this_s\\\"],body:\\\"this_s=0\\\"},body:{args:[{name:\\\"a\\\",lvalue:!1,rvalue:!0,count:1}],body:\\\"this_s+=a\\\",localVars:[],thisVars:[\\\"this_s\\\"]},post:{args:[],localVars:[],thisVars:[\\\"this_s\\\"],body:\\\"return this_s\\\"},funcName:\\\"sum\\\"}),r.prod=n({args:[\\\"array\\\"],pre:{args:[],localVars:[],thisVars:[\\\"this_s\\\"],body:\\\"this_s=1\\\"},body:{args:[{name:\\\"a\\\",lvalue:!1,rvalue:!0,count:1}],body:\\\"this_s*=a\\\",localVars:[],thisVars:[\\\"this_s\\\"]},post:{args:[],localVars:[],thisVars:[\\\"this_s\\\"],body:\\\"return this_s\\\"},funcName:\\\"prod\\\"}),r.norm2squared=n({args:[\\\"array\\\"],pre:{args:[],localVars:[],thisVars:[\\\"this_s\\\"],body:\\\"this_s=0\\\"},body:{args:[{name:\\\"a\\\",lvalue:!1,rvalue:!0,count:2}],body:\\\"this_s+=a*a\\\",localVars:[],thisVars:[\\\"this_s\\\"]},post:{args:[],localVars:[],thisVars:[\\\"this_s\\\"],body:\\\"return this_s\\\"},funcName:\\\"norm2squared\\\"}),r.norm2=n({args:[\\\"array\\\"],pre:{args:[],localVars:[],thisVars:[\\\"this_s\\\"],body:\\\"this_s=0\\\"},body:{args:[{name:\\\"a\\\",lvalue:!1,rvalue:!0,count:2}],body:\\\"this_s+=a*a\\\",localVars:[],thisVars:[\\\"this_s\\\"]},post:{args:[],localVars:[],thisVars:[\\\"this_s\\\"],body:\\\"return Math.sqrt(this_s)\\\"},funcName:\\\"norm2\\\"}),r.norminf=n({args:[\\\"array\\\"],pre:{args:[],localVars:[],thisVars:[\\\"this_s\\\"],body:\\\"this_s=0\\\"},body:{args:[{name:\\\"a\\\",lvalue:!1,rvalue:!0,count:4}],body:\\\"if(-a>this_s){this_s=-a}else if(a>this_s){this_s=a}\\\",localVars:[],thisVars:[\\\"this_s\\\"]},post:{args:[],localVars:[],thisVars:[\\\"this_s\\\"],body:\\\"return this_s\\\"},funcName:\\\"norminf\\\"}),r.norm1=n({args:[\\\"array\\\"],pre:{args:[],localVars:[],thisVars:[\\\"this_s\\\"],body:\\\"this_s=0\\\"},body:{args:[{name:\\\"a\\\",lvalue:!1,rvalue:!0,count:3}],body:\\\"this_s+=a<0?-a:a\\\",localVars:[],thisVars:[\\\"this_s\\\"]},post:{args:[],localVars:[],thisVars:[\\\"this_s\\\"],body:\\\"return this_s\\\"},funcName:\\\"norm1\\\"}),r.sup=n({args:[\\\"array\\\"],pre:{body:\\\"this_h=-Infinity\\\",args:[],thisVars:[\\\"this_h\\\"],localVars:[]},body:{body:\\\"if(_inline_1_arg0_>this_h)this_h=_inline_1_arg0_\\\",args:[{name:\\\"_inline_1_arg0_\\\",lvalue:!1,rvalue:!0,count:2}],thisVars:[\\\"this_h\\\"],localVars:[]},post:{body:\\\"return this_h\\\",args:[],thisVars:[\\\"this_h\\\"],localVars:[]}}),r.inf=n({args:[\\\"array\\\"],pre:{body:\\\"this_h=Infinity\\\",args:[],thisVars:[\\\"this_h\\\"],localVars:[]},body:{body:\\\"if(_inline_1_arg0_<this_h)this_h=_inline_1_arg0_\\\",args:[{name:\\\"_inline_1_arg0_\\\",lvalue:!1,rvalue:!0,count:2}],thisVars:[\\\"this_h\\\"],localVars:[]},post:{body:\\\"return this_h\\\",args:[],thisVars:[\\\"this_h\\\"],localVars:[]}}),r.argmin=n({args:[\\\"index\\\",\\\"array\\\",\\\"shape\\\"],pre:{body:\\\"{this_v=Infinity;this_i=_inline_0_arg2_.slice(0)}\\\",args:[{name:\\\"_inline_0_arg0_\\\",lvalue:!1,rvalue:!1,count:0},{name:\\\"_inline_0_arg1_\\\",lvalue:!1,rvalue:!1,count:0},{name:\\\"_inline_0_arg2_\\\",lvalue:!1,rvalue:!0,count:1}],thisVars:[\\\"this_i\\\",\\\"this_v\\\"],localVars:[]},body:{body:\\\"{if(_inline_1_arg1_<this_v){this_v=_inline_1_arg1_;for(var _inline_1_k=0;_inline_1_k<_inline_1_arg0_.length;++_inline_1_k){this_i[_inline_1_k]=_inline_1_arg0_[_inline_1_k]}}}\\\",args:[{name:\\\"_inline_1_arg0_\\\",lvalue:!1,rvalue:!0,count:2},{name:\\\"_inline_1_arg1_\\\",lvalue:!1,rvalue:!0,count:2}],thisVars:[\\\"this_i\\\",\\\"this_v\\\"],localVars:[\\\"_inline_1_k\\\"]},post:{body:\\\"{return this_i}\\\",args:[],thisVars:[\\\"this_i\\\"],localVars:[]}}),r.argmax=n({args:[\\\"index\\\",\\\"array\\\",\\\"shape\\\"],pre:{body:\\\"{this_v=-Infinity;this_i=_inline_0_arg2_.slice(0)}\\\",args:[{name:\\\"_inline_0_arg0_\\\",lvalue:!1,rvalue:!1,count:0},{name:\\\"_inline_0_arg1_\\\",lvalue:!1,rvalue:!1,count:0},{name:\\\"_inline_0_arg2_\\\",lvalue:!1,rvalue:!0,count:1}],thisVars:[\\\"this_i\\\",\\\"this_v\\\"],localVars:[]},body:{body:\\\"{if(_inline_1_arg1_>this_v){this_v=_inline_1_arg1_;for(var _inline_1_k=0;_inline_1_k<_inline_1_arg0_.length;++_inline_1_k){this_i[_inline_1_k]=_inline_1_arg0_[_inline_1_k]}}}\\\",args:[{name:\\\"_inline_1_arg0_\\\",lvalue:!1,rvalue:!0,count:2},{name:\\\"_inline_1_arg1_\\\",lvalue:!1,rvalue:!0,count:2}],thisVars:[\\\"this_i\\\",\\\"this_v\\\"],localVars:[\\\"_inline_1_k\\\"]},post:{body:\\\"{return this_i}\\\",args:[],thisVars:[\\\"this_i\\\"],localVars:[]}}),r.random=o({args:[\\\"array\\\"],pre:{args:[],body:\\\"this_f=Math.random\\\",thisVars:[\\\"this_f\\\"]},body:{args:[\\\"a\\\"],body:\\\"a=this_f()\\\",thisVars:[\\\"this_f\\\"]},funcName:\\\"random\\\"}),r.assign=o({args:[\\\"array\\\",\\\"array\\\"],body:{args:[\\\"a\\\",\\\"b\\\"],body:\\\"a=b\\\"},funcName:\\\"assign\\\"}),r.assigns=o({args:[\\\"array\\\",\\\"scalar\\\"],body:{args:[\\\"a\\\",\\\"b\\\"],body:\\\"a=b\\\"},funcName:\\\"assigns\\\"}),r.equals=n({args:[\\\"array\\\",\\\"array\\\"],pre:i,body:{args:[{name:\\\"x\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"y\\\",lvalue:!1,rvalue:!0,count:1}],body:\\\"if(x!==y){return false}\\\",localVars:[],thisVars:[]},post:{args:[],localVars:[],thisVars:[],body:\\\"return true\\\"},funcName:\\\"equals\\\"})},{\\\"cwise-compiler\\\":139}],440:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"ndarray\\\"),i=t(\\\"./doConvert.js\\\");e.exports=function(t,e){for(var r=[],a=t,o=1;Array.isArray(a);)r.push(a.length),o*=a.length,a=a[0];return 0===r.length?n():(e||(e=n(new Float64Array(o),r)),i(e,t),e)}},{\\\"./doConvert.js\\\":441,ndarray:445}],441:[function(t,e,r){e.exports=t(\\\"cwise-compiler\\\")({args:[\\\"array\\\",\\\"scalar\\\",\\\"index\\\"],pre:{body:\\\"{}\\\",args:[],thisVars:[],localVars:[]},body:{body:\\\"{\\\\nvar _inline_1_v=_inline_1_arg1_,_inline_1_i\\\\nfor(_inline_1_i=0;_inline_1_i<_inline_1_arg2_.length-1;++_inline_1_i) {\\\\n_inline_1_v=_inline_1_v[_inline_1_arg2_[_inline_1_i]]\\\\n}\\\\n_inline_1_arg0_=_inline_1_v[_inline_1_arg2_[_inline_1_arg2_.length-1]]\\\\n}\\\",args:[{name:\\\"_inline_1_arg0_\\\",lvalue:!0,rvalue:!1,count:1},{name:\\\"_inline_1_arg1_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_1_arg2_\\\",lvalue:!1,rvalue:!0,count:4}],thisVars:[],localVars:[\\\"_inline_1_i\\\",\\\"_inline_1_v\\\"]},post:{body:\\\"{}\\\",args:[],thisVars:[],localVars:[]},funcName:\\\"convert\\\",blockSize:64})},{\\\"cwise-compiler\\\":139}],442:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"typedarray-pool\\\"),i=32;function a(t){switch(t){case\\\"uint8\\\":return[n.mallocUint8,n.freeUint8];case\\\"uint16\\\":return[n.mallocUint16,n.freeUint16];case\\\"uint32\\\":return[n.mallocUint32,n.freeUint32];case\\\"int8\\\":return[n.mallocInt8,n.freeInt8];case\\\"int16\\\":return[n.mallocInt16,n.freeInt16];case\\\"int32\\\":return[n.mallocInt32,n.freeInt32];case\\\"float32\\\":return[n.mallocFloat,n.freeFloat];case\\\"float64\\\":return[n.mallocDouble,n.freeDouble];default:return null}}function o(t){for(var e=[],r=0;r<t;++r)e.push(\\\"s\\\"+r);for(r=0;r<t;++r)e.push(\\\"n\\\"+r);for(r=1;r<t;++r)e.push(\\\"d\\\"+r);for(r=1;r<t;++r)e.push(\\\"e\\\"+r);for(r=1;r<t;++r)e.push(\\\"f\\\"+r);return e}e.exports=function(t,e){var r=[\\\"'use strict'\\\"],n=[\\\"ndarraySortWrapper\\\",t.join(\\\"d\\\"),e].join(\\\"\\\");r.push([\\\"function \\\",n,\\\"(\\\",[\\\"array\\\"].join(\\\",\\\"),\\\"){\\\"].join(\\\"\\\"));for(var s=[\\\"data=array.data,offset=array.offset|0,shape=array.shape,stride=array.stride\\\"],l=0;l<t.length;++l)s.push([\\\"s\\\",l,\\\"=stride[\\\",l,\\\"]|0,n\\\",l,\\\"=shape[\\\",l,\\\"]|0\\\"].join(\\\"\\\"));var c=new Array(t.length),u=[];for(l=0;l<t.length;++l)0!==(p=t[l])&&(0===u.length?c[p]=\\\"1\\\":c[p]=u.join(\\\"*\\\"),u.push(\\\"n\\\"+p));var f=-1,h=-1;for(l=0;l<t.length;++l){var p,d=t[l];0!==d&&(f>0?s.push([\\\"d\\\",d,\\\"=s\\\",d,\\\"-d\\\",f,\\\"*n\\\",f].join(\\\"\\\")):s.push([\\\"d\\\",d,\\\"=s\\\",d].join(\\\"\\\")),f=d),0!=(p=t.length-1-l)&&(h>0?s.push([\\\"e\\\",p,\\\"=s\\\",p,\\\"-e\\\",h,\\\"*n\\\",h,\\\",f\\\",p,\\\"=\\\",c[p],\\\"-f\\\",h,\\\"*n\\\",h].join(\\\"\\\")):s.push([\\\"e\\\",p,\\\"=s\\\",p,\\\",f\\\",p,\\\"=\\\",c[p]].join(\\\"\\\")),h=p)}r.push(\\\"var \\\"+s.join(\\\",\\\"));var g=[\\\"0\\\",\\\"n0-1\\\",\\\"data\\\",\\\"offset\\\"].concat(o(t.length));r.push([\\\"if(n0<=\\\",i,\\\"){\\\",\\\"insertionSort(\\\",g.join(\\\",\\\"),\\\")}else{\\\",\\\"quickSort(\\\",g.join(\\\",\\\"),\\\")}\\\"].join(\\\"\\\")),r.push(\\\"}return \\\"+n);var v=new Function(\\\"insertionSort\\\",\\\"quickSort\\\",r.join(\\\"\\\\n\\\")),m=function(t,e){var r=[\\\"'use strict'\\\"],n=[\\\"ndarrayInsertionSort\\\",t.join(\\\"d\\\"),e].join(\\\"\\\"),i=[\\\"left\\\",\\\"right\\\",\\\"data\\\",\\\"offset\\\"].concat(o(t.length)),s=a(e),l=[\\\"i,j,cptr,ptr=left*s0+offset\\\"];if(t.length>1){for(var c=[],u=1;u<t.length;++u)l.push(\\\"i\\\"+u),c.push(\\\"n\\\"+u);s?l.push(\\\"scratch=malloc(\\\"+c.join(\\\"*\\\")+\\\")\\\"):l.push(\\\"scratch=new Array(\\\"+c.join(\\\"*\\\")+\\\")\\\"),l.push(\\\"dptr\\\",\\\"sptr\\\",\\\"a\\\",\\\"b\\\")}else l.push(\\\"scratch\\\");function f(t){return\\\"generic\\\"===e?[\\\"data.get(\\\",t,\\\")\\\"].join(\\\"\\\"):[\\\"data[\\\",t,\\\"]\\\"].join(\\\"\\\")}function h(t,r){return\\\"generic\\\"===e?[\\\"data.set(\\\",t,\\\",\\\",r,\\\")\\\"].join(\\\"\\\"):[\\\"data[\\\",t,\\\"]=\\\",r].join(\\\"\\\")}if(r.push([\\\"function \\\",n,\\\"(\\\",i.join(\\\",\\\"),\\\"){var \\\",l.join(\\\",\\\")].join(\\\"\\\"),\\\"for(i=left+1;i<=right;++i){\\\",\\\"j=i;ptr+=s0\\\",\\\"cptr=ptr\\\"),t.length>1){for(r.push(\\\"dptr=0;sptr=ptr\\\"),u=t.length-1;u>=0;--u)0!==(p=t[u])&&r.push([\\\"for(i\\\",p,\\\"=0;i\\\",p,\\\"<n\\\",p,\\\";++i\\\",p,\\\"){\\\"].join(\\\"\\\"));for(r.push(\\\"scratch[dptr++]=\\\",f(\\\"sptr\\\")),u=0;u<t.length;++u)0!==(p=t[u])&&r.push(\\\"sptr+=d\\\"+p,\\\"}\\\");for(r.push(\\\"__g:while(j--\\\\x3eleft){\\\",\\\"dptr=0\\\",\\\"sptr=cptr-s0\\\"),u=1;u<t.length;++u)1===u&&r.push(\\\"__l:\\\"),r.push([\\\"for(i\\\",u,\\\"=0;i\\\",u,\\\"<n\\\",u,\\\";++i\\\",u,\\\"){\\\"].join(\\\"\\\"));for(r.push([\\\"a=\\\",f(\\\"sptr\\\"),\\\"\\\\nb=scratch[dptr]\\\\nif(a<b){break __g}\\\\nif(a>b){break __l}\\\"].join(\\\"\\\")),u=t.length-1;u>=1;--u)r.push(\\\"sptr+=e\\\"+u,\\\"dptr+=f\\\"+u,\\\"}\\\");for(r.push(\\\"dptr=cptr;sptr=cptr-s0\\\"),u=t.length-1;u>=0;--u)0!==(p=t[u])&&r.push([\\\"for(i\\\",p,\\\"=0;i\\\",p,\\\"<n\\\",p,\\\";++i\\\",p,\\\"){\\\"].join(\\\"\\\"));for(r.push(h(\\\"dptr\\\",f(\\\"sptr\\\"))),u=0;u<t.length;++u)0!==(p=t[u])&&r.push([\\\"dptr+=d\\\",p,\\\";sptr+=d\\\",p].join(\\\"\\\"),\\\"}\\\");for(r.push(\\\"cptr-=s0\\\\n}\\\"),r.push(\\\"dptr=cptr;sptr=0\\\"),u=t.length-1;u>=0;--u)0!==(p=t[u])&&r.push([\\\"for(i\\\",p,\\\"=0;i\\\",p,\\\"<n\\\",p,\\\";++i\\\",p,\\\"){\\\"].join(\\\"\\\"));for(r.push(h(\\\"dptr\\\",\\\"scratch[sptr++]\\\")),u=0;u<t.length;++u){var p;0!==(p=t[u])&&r.push(\\\"dptr+=d\\\"+p,\\\"}\\\")}}else r.push(\\\"scratch=\\\"+f(\\\"ptr\\\"),\\\"while((j--\\\\x3eleft)&&(\\\"+f(\\\"cptr-s0\\\")+\\\">scratch)){\\\",h(\\\"cptr\\\",f(\\\"cptr-s0\\\")),\\\"cptr-=s0\\\",\\\"}\\\",h(\\\"cptr\\\",\\\"scratch\\\"));return r.push(\\\"}\\\"),t.length>1&&s&&r.push(\\\"free(scratch)\\\"),r.push(\\\"} return \\\"+n),s?new Function(\\\"malloc\\\",\\\"free\\\",r.join(\\\"\\\\n\\\"))(s[0],s[1]):new Function(r.join(\\\"\\\\n\\\"))()}(t,e),y=function(t,e,r){var n=[\\\"'use strict'\\\"],s=[\\\"ndarrayQuickSort\\\",t.join(\\\"d\\\"),e].join(\\\"\\\"),l=[\\\"left\\\",\\\"right\\\",\\\"data\\\",\\\"offset\\\"].concat(o(t.length)),c=a(e),u=0;n.push([\\\"function \\\",s,\\\"(\\\",l.join(\\\",\\\"),\\\"){\\\"].join(\\\"\\\"));var f=[\\\"sixth=((right-left+1)/6)|0\\\",\\\"index1=left+sixth\\\",\\\"index5=right-sixth\\\",\\\"index3=(left+right)>>1\\\",\\\"index2=index3-sixth\\\",\\\"index4=index3+sixth\\\",\\\"el1=index1\\\",\\\"el2=index2\\\",\\\"el3=index3\\\",\\\"el4=index4\\\",\\\"el5=index5\\\",\\\"less=left+1\\\",\\\"great=right-1\\\",\\\"pivots_are_equal=true\\\",\\\"tmp\\\",\\\"tmp0\\\",\\\"x\\\",\\\"y\\\",\\\"z\\\",\\\"k\\\",\\\"ptr0\\\",\\\"ptr1\\\",\\\"ptr2\\\",\\\"comp_pivot1=0\\\",\\\"comp_pivot2=0\\\",\\\"comp=0\\\"];if(t.length>1){for(var h=[],p=1;p<t.length;++p)h.push(\\\"n\\\"+p),f.push(\\\"i\\\"+p);for(p=0;p<8;++p)f.push(\\\"b_ptr\\\"+p);f.push(\\\"ptr3\\\",\\\"ptr4\\\",\\\"ptr5\\\",\\\"ptr6\\\",\\\"ptr7\\\",\\\"pivot_ptr\\\",\\\"ptr_shift\\\",\\\"elementSize=\\\"+h.join(\\\"*\\\")),c?f.push(\\\"pivot1=malloc(elementSize)\\\",\\\"pivot2=malloc(elementSize)\\\"):f.push(\\\"pivot1=new Array(elementSize),pivot2=new Array(elementSize)\\\")}else f.push(\\\"pivot1\\\",\\\"pivot2\\\");function d(t){return[\\\"(offset+\\\",t,\\\"*s0)\\\"].join(\\\"\\\")}function g(t){return\\\"generic\\\"===e?[\\\"data.get(\\\",t,\\\")\\\"].join(\\\"\\\"):[\\\"data[\\\",t,\\\"]\\\"].join(\\\"\\\")}function v(t,r){return\\\"generic\\\"===e?[\\\"data.set(\\\",t,\\\",\\\",r,\\\")\\\"].join(\\\"\\\"):[\\\"data[\\\",t,\\\"]=\\\",r].join(\\\"\\\")}function m(e,r,i){if(1===e.length)n.push(\\\"ptr0=\\\"+d(e[0]));else for(var a=0;a<e.length;++a)n.push([\\\"b_ptr\\\",a,\\\"=s0*\\\",e[a]].join(\\\"\\\"));for(r&&n.push(\\\"pivot_ptr=0\\\"),n.push(\\\"ptr_shift=offset\\\"),a=t.length-1;a>=0;--a)0!==(o=t[a])&&n.push([\\\"for(i\\\",o,\\\"=0;i\\\",o,\\\"<n\\\",o,\\\";++i\\\",o,\\\"){\\\"].join(\\\"\\\"));if(e.length>1)for(a=0;a<e.length;++a)n.push([\\\"ptr\\\",a,\\\"=b_ptr\\\",a,\\\"+ptr_shift\\\"].join(\\\"\\\"));for(n.push(i),r&&n.push(\\\"++pivot_ptr\\\"),a=0;a<t.length;++a){var o;0!==(o=t[a])&&(e.length>1?n.push(\\\"ptr_shift+=d\\\"+o):n.push(\\\"ptr0+=d\\\"+o),n.push(\\\"}\\\"))}}function y(e,r,i,a){if(1===r.length)n.push(\\\"ptr0=\\\"+d(r[0]));else{for(var o=0;o<r.length;++o)n.push([\\\"b_ptr\\\",o,\\\"=s0*\\\",r[o]].join(\\\"\\\"));n.push(\\\"ptr_shift=offset\\\")}for(i&&n.push(\\\"pivot_ptr=0\\\"),e&&n.push(e+\\\":\\\"),o=1;o<t.length;++o)n.push([\\\"for(i\\\",o,\\\"=0;i\\\",o,\\\"<n\\\",o,\\\";++i\\\",o,\\\"){\\\"].join(\\\"\\\"));if(r.length>1)for(o=0;o<r.length;++o)n.push([\\\"ptr\\\",o,\\\"=b_ptr\\\",o,\\\"+ptr_shift\\\"].join(\\\"\\\"));for(n.push(a),o=t.length-1;o>=1;--o)i&&n.push(\\\"pivot_ptr+=f\\\"+o),r.length>1?n.push(\\\"ptr_shift+=e\\\"+o):n.push(\\\"ptr0+=e\\\"+o),n.push(\\\"}\\\")}function x(){t.length>1&&c&&n.push(\\\"free(pivot1)\\\",\\\"free(pivot2)\\\")}function b(e,r){var i=\\\"el\\\"+e,a=\\\"el\\\"+r;if(t.length>1){var o=\\\"__l\\\"+ ++u;y(o,[i,a],!1,[\\\"comp=\\\",g(\\\"ptr0\\\"),\\\"-\\\",g(\\\"ptr1\\\"),\\\"\\\\n\\\",\\\"if(comp>0){tmp0=\\\",i,\\\";\\\",i,\\\"=\\\",a,\\\";\\\",a,\\\"=tmp0;break \\\",o,\\\"}\\\\n\\\",\\\"if(comp<0){break \\\",o,\\\"}\\\"].join(\\\"\\\"))}else n.push([\\\"if(\\\",g(d(i)),\\\">\\\",g(d(a)),\\\"){tmp0=\\\",i,\\\";\\\",i,\\\"=\\\",a,\\\";\\\",a,\\\"=tmp0}\\\"].join(\\\"\\\"))}function _(e,r){t.length>1?m([e,r],!1,v(\\\"ptr0\\\",g(\\\"ptr1\\\"))):n.push(v(d(e),g(d(r))))}function w(e,r,i){if(t.length>1){var a=\\\"__l\\\"+ ++u;y(a,[r],!0,[e,\\\"=\\\",g(\\\"ptr0\\\"),\\\"-pivot\\\",i,\\\"[pivot_ptr]\\\\n\\\",\\\"if(\\\",e,\\\"!==0){break \\\",a,\\\"}\\\"].join(\\\"\\\"))}else n.push([e,\\\"=\\\",g(d(r)),\\\"-pivot\\\",i].join(\\\"\\\"))}function k(e,r){t.length>1?m([e,r],!1,[\\\"tmp=\\\",g(\\\"ptr0\\\"),\\\"\\\\n\\\",v(\\\"ptr0\\\",g(\\\"ptr1\\\")),\\\"\\\\n\\\",v(\\\"ptr1\\\",\\\"tmp\\\")].join(\\\"\\\")):n.push([\\\"ptr0=\\\",d(e),\\\"\\\\n\\\",\\\"ptr1=\\\",d(r),\\\"\\\\n\\\",\\\"tmp=\\\",g(\\\"ptr0\\\"),\\\"\\\\n\\\",v(\\\"ptr0\\\",g(\\\"ptr1\\\")),\\\"\\\\n\\\",v(\\\"ptr1\\\",\\\"tmp\\\")].join(\\\"\\\"))}function T(e,r,i){t.length>1?(m([e,r,i],!1,[\\\"tmp=\\\",g(\\\"ptr0\\\"),\\\"\\\\n\\\",v(\\\"ptr0\\\",g(\\\"ptr1\\\")),\\\"\\\\n\\\",v(\\\"ptr1\\\",g(\\\"ptr2\\\")),\\\"\\\\n\\\",v(\\\"ptr2\\\",\\\"tmp\\\")].join(\\\"\\\")),n.push(\\\"++\\\"+r,\\\"--\\\"+i)):n.push([\\\"ptr0=\\\",d(e),\\\"\\\\n\\\",\\\"ptr1=\\\",d(r),\\\"\\\\n\\\",\\\"ptr2=\\\",d(i),\\\"\\\\n\\\",\\\"++\\\",r,\\\"\\\\n\\\",\\\"--\\\",i,\\\"\\\\n\\\",\\\"tmp=\\\",g(\\\"ptr0\\\"),\\\"\\\\n\\\",v(\\\"ptr0\\\",g(\\\"ptr1\\\")),\\\"\\\\n\\\",v(\\\"ptr1\\\",g(\\\"ptr2\\\")),\\\"\\\\n\\\",v(\\\"ptr2\\\",\\\"tmp\\\")].join(\\\"\\\"))}function A(t,e){k(t,e),n.push(\\\"--\\\"+e)}function M(e,r,i){t.length>1?m([e,r],!0,[v(\\\"ptr0\\\",g(\\\"ptr1\\\")),\\\"\\\\n\\\",v(\\\"ptr1\\\",[\\\"pivot\\\",i,\\\"[pivot_ptr]\\\"].join(\\\"\\\"))].join(\\\"\\\")):n.push(v(d(e),g(d(r))),v(d(r),\\\"pivot\\\"+i))}function S(e,r){n.push([\\\"if((\\\",r,\\\"-\\\",e,\\\")<=\\\",i,\\\"){\\\\n\\\",\\\"insertionSort(\\\",e,\\\",\\\",r,\\\",data,offset,\\\",o(t.length).join(\\\",\\\"),\\\")\\\\n\\\",\\\"}else{\\\\n\\\",s,\\\"(\\\",e,\\\",\\\",r,\\\",data,offset,\\\",o(t.length).join(\\\",\\\"),\\\")\\\\n\\\",\\\"}\\\"].join(\\\"\\\"))}function E(e,r,i){t.length>1?(n.push([\\\"__l\\\",++u,\\\":while(true){\\\"].join(\\\"\\\")),m([e],!0,[\\\"if(\\\",g(\\\"ptr0\\\"),\\\"!==pivot\\\",r,\\\"[pivot_ptr]){break __l\\\",u,\\\"}\\\"].join(\\\"\\\")),n.push(i,\\\"}\\\")):n.push([\\\"while(\\\",g(d(e)),\\\"===pivot\\\",r,\\\"){\\\",i,\\\"}\\\"].join(\\\"\\\"))}return n.push(\\\"var \\\"+f.join(\\\",\\\")),b(1,2),b(4,5),b(1,3),b(2,3),b(1,4),b(3,4),b(2,5),b(2,3),b(4,5),t.length>1?m([\\\"el1\\\",\\\"el2\\\",\\\"el3\\\",\\\"el4\\\",\\\"el5\\\",\\\"index1\\\",\\\"index3\\\",\\\"index5\\\"],!0,[\\\"pivot1[pivot_ptr]=\\\",g(\\\"ptr1\\\"),\\\"\\\\n\\\",\\\"pivot2[pivot_ptr]=\\\",g(\\\"ptr3\\\"),\\\"\\\\n\\\",\\\"pivots_are_equal=pivots_are_equal&&(pivot1[pivot_ptr]===pivot2[pivot_ptr])\\\\n\\\",\\\"x=\\\",g(\\\"ptr0\\\"),\\\"\\\\n\\\",\\\"y=\\\",g(\\\"ptr2\\\"),\\\"\\\\n\\\",\\\"z=\\\",g(\\\"ptr4\\\"),\\\"\\\\n\\\",v(\\\"ptr5\\\",\\\"x\\\"),\\\"\\\\n\\\",v(\\\"ptr6\\\",\\\"y\\\"),\\\"\\\\n\\\",v(\\\"ptr7\\\",\\\"z\\\")].join(\\\"\\\")):n.push([\\\"pivot1=\\\",g(d(\\\"el2\\\")),\\\"\\\\n\\\",\\\"pivot2=\\\",g(d(\\\"el4\\\")),\\\"\\\\n\\\",\\\"pivots_are_equal=pivot1===pivot2\\\\n\\\",\\\"x=\\\",g(d(\\\"el1\\\")),\\\"\\\\n\\\",\\\"y=\\\",g(d(\\\"el3\\\")),\\\"\\\\n\\\",\\\"z=\\\",g(d(\\\"el5\\\")),\\\"\\\\n\\\",v(d(\\\"index1\\\"),\\\"x\\\"),\\\"\\\\n\\\",v(d(\\\"index3\\\"),\\\"y\\\"),\\\"\\\\n\\\",v(d(\\\"index5\\\"),\\\"z\\\")].join(\\\"\\\")),_(\\\"index2\\\",\\\"left\\\"),_(\\\"index4\\\",\\\"right\\\"),n.push(\\\"if(pivots_are_equal){\\\"),n.push(\\\"for(k=less;k<=great;++k){\\\"),w(\\\"comp\\\",\\\"k\\\",1),n.push(\\\"if(comp===0){continue}\\\"),n.push(\\\"if(comp<0){\\\"),n.push(\\\"if(k!==less){\\\"),k(\\\"k\\\",\\\"less\\\"),n.push(\\\"}\\\"),n.push(\\\"++less\\\"),n.push(\\\"}else{\\\"),n.push(\\\"while(true){\\\"),w(\\\"comp\\\",\\\"great\\\",1),n.push(\\\"if(comp>0){\\\"),n.push(\\\"great--\\\"),n.push(\\\"}else if(comp<0){\\\"),T(\\\"k\\\",\\\"less\\\",\\\"great\\\"),n.push(\\\"break\\\"),n.push(\\\"}else{\\\"),A(\\\"k\\\",\\\"great\\\"),n.push(\\\"break\\\"),n.push(\\\"}\\\"),n.push(\\\"}\\\"),n.push(\\\"}\\\"),n.push(\\\"}\\\"),n.push(\\\"}else{\\\"),n.push(\\\"for(k=less;k<=great;++k){\\\"),w(\\\"comp_pivot1\\\",\\\"k\\\",1),n.push(\\\"if(comp_pivot1<0){\\\"),n.push(\\\"if(k!==less){\\\"),k(\\\"k\\\",\\\"less\\\"),n.push(\\\"}\\\"),n.push(\\\"++less\\\"),n.push(\\\"}else{\\\"),w(\\\"comp_pivot2\\\",\\\"k\\\",2),n.push(\\\"if(comp_pivot2>0){\\\"),n.push(\\\"while(true){\\\"),w(\\\"comp\\\",\\\"great\\\",2),n.push(\\\"if(comp>0){\\\"),n.push(\\\"if(--great<k){break}\\\"),n.push(\\\"continue\\\"),n.push(\\\"}else{\\\"),w(\\\"comp\\\",\\\"great\\\",1),n.push(\\\"if(comp<0){\\\"),T(\\\"k\\\",\\\"less\\\",\\\"great\\\"),n.push(\\\"}else{\\\"),A(\\\"k\\\",\\\"great\\\"),n.push(\\\"}\\\"),n.push(\\\"break\\\"),n.push(\\\"}\\\"),n.push(\\\"}\\\"),n.push(\\\"}\\\"),n.push(\\\"}\\\"),n.push(\\\"}\\\"),n.push(\\\"}\\\"),M(\\\"left\\\",\\\"(less-1)\\\",1),M(\\\"right\\\",\\\"(great+1)\\\",2),S(\\\"left\\\",\\\"(less-2)\\\"),S(\\\"(great+2)\\\",\\\"right\\\"),n.push(\\\"if(pivots_are_equal){\\\"),x(),n.push(\\\"return\\\"),n.push(\\\"}\\\"),n.push(\\\"if(less<index1&&great>index5){\\\"),E(\\\"less\\\",1,\\\"++less\\\"),E(\\\"great\\\",2,\\\"--great\\\"),n.push(\\\"for(k=less;k<=great;++k){\\\"),w(\\\"comp_pivot1\\\",\\\"k\\\",1),n.push(\\\"if(comp_pivot1===0){\\\"),n.push(\\\"if(k!==less){\\\"),k(\\\"k\\\",\\\"less\\\"),n.push(\\\"}\\\"),n.push(\\\"++less\\\"),n.push(\\\"}else{\\\"),w(\\\"comp_pivot2\\\",\\\"k\\\",2),n.push(\\\"if(comp_pivot2===0){\\\"),n.push(\\\"while(true){\\\"),w(\\\"comp\\\",\\\"great\\\",2),n.push(\\\"if(comp===0){\\\"),n.push(\\\"if(--great<k){break}\\\"),n.push(\\\"continue\\\"),n.push(\\\"}else{\\\"),w(\\\"comp\\\",\\\"great\\\",1),n.push(\\\"if(comp<0){\\\"),T(\\\"k\\\",\\\"less\\\",\\\"great\\\"),n.push(\\\"}else{\\\"),A(\\\"k\\\",\\\"great\\\"),n.push(\\\"}\\\"),n.push(\\\"break\\\"),n.push(\\\"}\\\"),n.push(\\\"}\\\"),n.push(\\\"}\\\"),n.push(\\\"}\\\"),n.push(\\\"}\\\"),n.push(\\\"}\\\"),x(),S(\\\"less\\\",\\\"great\\\"),n.push(\\\"}return \\\"+s),t.length>1&&c?new Function(\\\"insertionSort\\\",\\\"malloc\\\",\\\"free\\\",n.join(\\\"\\\\n\\\"))(r,c[0],c[1]):new Function(\\\"insertionSort\\\",n.join(\\\"\\\\n\\\"))(r)}(t,e,m);return v(m,y)}},{\\\"typedarray-pool\\\":532}],443:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./lib/compile_sort.js\\\"),i={};e.exports=function(t){var e=t.order,r=t.dtype,a=[e,r].join(\\\":\\\"),o=i[a];return o||(i[a]=o=n(e,r)),o(t),t}},{\\\"./lib/compile_sort.js\\\":442}],444:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"ndarray-linear-interpolate\\\"),i=t(\\\"cwise/lib/wrapper\\\")({args:[\\\"index\\\",\\\"array\\\",\\\"scalar\\\",\\\"scalar\\\",\\\"scalar\\\"],pre:{body:\\\"{this_warped=new Array(_inline_3_arg4_)}\\\",args:[{name:\\\"_inline_3_arg0_\\\",lvalue:!1,rvalue:!1,count:0},{name:\\\"_inline_3_arg1_\\\",lvalue:!1,rvalue:!1,count:0},{name:\\\"_inline_3_arg2_\\\",lvalue:!1,rvalue:!1,count:0},{name:\\\"_inline_3_arg3_\\\",lvalue:!1,rvalue:!1,count:0},{name:\\\"_inline_3_arg4_\\\",lvalue:!1,rvalue:!0,count:1}],thisVars:[\\\"this_warped\\\"],localVars:[]},body:{body:\\\"{_inline_4_arg2_(this_warped,_inline_4_arg0_),_inline_4_arg1_=_inline_4_arg3_.apply(void 0,this_warped)}\\\",args:[{name:\\\"_inline_4_arg0_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_4_arg1_\\\",lvalue:!0,rvalue:!1,count:1},{name:\\\"_inline_4_arg2_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_4_arg3_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_4_arg4_\\\",lvalue:!1,rvalue:!1,count:0}],thisVars:[\\\"this_warped\\\"],localVars:[]},post:{body:\\\"{}\\\",args:[],thisVars:[],localVars:[]},debug:!1,funcName:\\\"warpND\\\",blockSize:64}),a=t(\\\"cwise/lib/wrapper\\\")({args:[\\\"index\\\",\\\"array\\\",\\\"scalar\\\",\\\"scalar\\\",\\\"scalar\\\"],pre:{body:\\\"{this_warped=[0]}\\\",args:[],thisVars:[\\\"this_warped\\\"],localVars:[]},body:{body:\\\"{_inline_7_arg2_(this_warped,_inline_7_arg0_),_inline_7_arg1_=_inline_7_arg3_(_inline_7_arg4_,this_warped[0])}\\\",args:[{name:\\\"_inline_7_arg0_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_7_arg1_\\\",lvalue:!0,rvalue:!1,count:1},{name:\\\"_inline_7_arg2_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_7_arg3_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_7_arg4_\\\",lvalue:!1,rvalue:!0,count:1}],thisVars:[\\\"this_warped\\\"],localVars:[]},post:{body:\\\"{}\\\",args:[],thisVars:[],localVars:[]},debug:!1,funcName:\\\"warp1D\\\",blockSize:64}),o=t(\\\"cwise/lib/wrapper\\\")({args:[\\\"index\\\",\\\"array\\\",\\\"scalar\\\",\\\"scalar\\\",\\\"scalar\\\"],pre:{body:\\\"{this_warped=[0,0]}\\\",args:[],thisVars:[\\\"this_warped\\\"],localVars:[]},body:{body:\\\"{_inline_10_arg2_(this_warped,_inline_10_arg0_),_inline_10_arg1_=_inline_10_arg3_(_inline_10_arg4_,this_warped[0],this_warped[1])}\\\",args:[{name:\\\"_inline_10_arg0_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_10_arg1_\\\",lvalue:!0,rvalue:!1,count:1},{name:\\\"_inline_10_arg2_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_10_arg3_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_10_arg4_\\\",lvalue:!1,rvalue:!0,count:1}],thisVars:[\\\"this_warped\\\"],localVars:[]},post:{body:\\\"{}\\\",args:[],thisVars:[],localVars:[]},debug:!1,funcName:\\\"warp2D\\\",blockSize:64}),s=t(\\\"cwise/lib/wrapper\\\")({args:[\\\"index\\\",\\\"array\\\",\\\"scalar\\\",\\\"scalar\\\",\\\"scalar\\\"],pre:{body:\\\"{this_warped=[0,0,0]}\\\",args:[],thisVars:[\\\"this_warped\\\"],localVars:[]},body:{body:\\\"{_inline_13_arg2_(this_warped,_inline_13_arg0_),_inline_13_arg1_=_inline_13_arg3_(_inline_13_arg4_,this_warped[0],this_warped[1],this_warped[2])}\\\",args:[{name:\\\"_inline_13_arg0_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_13_arg1_\\\",lvalue:!0,rvalue:!1,count:1},{name:\\\"_inline_13_arg2_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_13_arg3_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_13_arg4_\\\",lvalue:!1,rvalue:!0,count:1}],thisVars:[\\\"this_warped\\\"],localVars:[]},post:{body:\\\"{}\\\",args:[],thisVars:[],localVars:[]},debug:!1,funcName:\\\"warp3D\\\",blockSize:64});e.exports=function(t,e,r){switch(e.shape.length){case 1:a(t,r,n.d1,e);break;case 2:o(t,r,n.d2,e);break;case 3:s(t,r,n.d3,e);break;default:i(t,r,n.bind(void 0,e),e.shape.length)}return t}},{\\\"cwise/lib/wrapper\\\":142,\\\"ndarray-linear-interpolate\\\":438}],445:[function(t,e,r){var n=t(\\\"iota-array\\\"),i=t(\\\"is-buffer\\\"),a=\\\"undefined\\\"!=typeof Float64Array;function o(t,e){return t[0]-e[0]}function s(){var t,e=this.stride,r=new Array(e.length);for(t=0;t<r.length;++t)r[t]=[Math.abs(e[t]),t];r.sort(o);var n=new Array(r.length);for(t=0;t<n.length;++t)n[t]=r[t][1];return n}function l(t,e){var r=[\\\"View\\\",e,\\\"d\\\",t].join(\\\"\\\");e<0&&(r=\\\"View_Nil\\\"+t);var i=\\\"generic\\\"===t;if(-1===e){var a=\\\"function \\\"+r+\\\"(a){this.data=a;};var proto=\\\"+r+\\\".prototype;proto.dtype='\\\"+t+\\\"';proto.index=function(){return -1};proto.size=0;proto.dimension=-1;proto.shape=proto.stride=proto.order=[];proto.lo=proto.hi=proto.transpose=proto.step=function(){return new \\\"+r+\\\"(this.data);};proto.get=proto.set=function(){};proto.pick=function(){return null};return function construct_\\\"+r+\\\"(a){return new \\\"+r+\\\"(a);}\\\";return new Function(a)()}if(0===e){a=\\\"function \\\"+r+\\\"(a,d) {this.data = a;this.offset = d};var proto=\\\"+r+\\\".prototype;proto.dtype='\\\"+t+\\\"';proto.index=function(){return this.offset};proto.dimension=0;proto.size=1;proto.shape=proto.stride=proto.order=[];proto.lo=proto.hi=proto.transpose=proto.step=function \\\"+r+\\\"_copy() {return new \\\"+r+\\\"(this.data,this.offset)};proto.pick=function \\\"+r+\\\"_pick(){return TrivialArray(this.data);};proto.valueOf=proto.get=function \\\"+r+\\\"_get(){return \\\"+(i?\\\"this.data.get(this.offset)\\\":\\\"this.data[this.offset]\\\")+\\\"};proto.set=function \\\"+r+\\\"_set(v){return \\\"+(i?\\\"this.data.set(this.offset,v)\\\":\\\"this.data[this.offset]=v\\\")+\\\"};return function construct_\\\"+r+\\\"(a,b,c,d){return new \\\"+r+\\\"(a,d)}\\\";return new Function(\\\"TrivialArray\\\",a)(c[t][0])}a=[\\\"'use strict'\\\"];var o=n(e),l=o.map(function(t){return\\\"i\\\"+t}),u=\\\"this.offset+\\\"+o.map(function(t){return\\\"this.stride[\\\"+t+\\\"]*i\\\"+t}).join(\\\"+\\\"),f=o.map(function(t){return\\\"b\\\"+t}).join(\\\",\\\"),h=o.map(function(t){return\\\"c\\\"+t}).join(\\\",\\\");a.push(\\\"function \\\"+r+\\\"(a,\\\"+f+\\\",\\\"+h+\\\",d){this.data=a\\\",\\\"this.shape=[\\\"+f+\\\"]\\\",\\\"this.stride=[\\\"+h+\\\"]\\\",\\\"this.offset=d|0}\\\",\\\"var proto=\\\"+r+\\\".prototype\\\",\\\"proto.dtype='\\\"+t+\\\"'\\\",\\\"proto.dimension=\\\"+e),a.push(\\\"Object.defineProperty(proto,'size',{get:function \\\"+r+\\\"_size(){return \\\"+o.map(function(t){return\\\"this.shape[\\\"+t+\\\"]\\\"}).join(\\\"*\\\"),\\\"}})\\\"),1===e?a.push(\\\"proto.order=[0]\\\"):(a.push(\\\"Object.defineProperty(proto,'order',{get:\\\"),e<4?(a.push(\\\"function \\\"+r+\\\"_order(){\\\"),2===e?a.push(\\\"return (Math.abs(this.stride[0])>Math.abs(this.stride[1]))?[1,0]:[0,1]}})\\\"):3===e&&a.push(\\\"var s0=Math.abs(this.stride[0]),s1=Math.abs(this.stride[1]),s2=Math.abs(this.stride[2]);if(s0>s1){if(s1>s2){return [2,1,0];}else if(s0>s2){return [1,2,0];}else{return [1,0,2];}}else if(s0>s2){return [2,0,1];}else if(s2>s1){return [0,1,2];}else{return [0,2,1];}}})\\\")):a.push(\\\"ORDER})\\\")),a.push(\\\"proto.set=function \\\"+r+\\\"_set(\\\"+l.join(\\\",\\\")+\\\",v){\\\"),i?a.push(\\\"return this.data.set(\\\"+u+\\\",v)}\\\"):a.push(\\\"return this.data[\\\"+u+\\\"]=v}\\\"),a.push(\\\"proto.get=function \\\"+r+\\\"_get(\\\"+l.join(\\\",\\\")+\\\"){\\\"),i?a.push(\\\"return this.data.get(\\\"+u+\\\")}\\\"):a.push(\\\"return this.data[\\\"+u+\\\"]}\\\"),a.push(\\\"proto.index=function \\\"+r+\\\"_index(\\\",l.join(),\\\"){return \\\"+u+\\\"}\\\"),a.push(\\\"proto.hi=function \\\"+r+\\\"_hi(\\\"+l.join(\\\",\\\")+\\\"){return new \\\"+r+\\\"(this.data,\\\"+o.map(function(t){return[\\\"(typeof i\\\",t,\\\"!=='number'||i\\\",t,\\\"<0)?this.shape[\\\",t,\\\"]:i\\\",t,\\\"|0\\\"].join(\\\"\\\")}).join(\\\",\\\")+\\\",\\\"+o.map(function(t){return\\\"this.stride[\\\"+t+\\\"]\\\"}).join(\\\",\\\")+\\\",this.offset)}\\\");var p=o.map(function(t){return\\\"a\\\"+t+\\\"=this.shape[\\\"+t+\\\"]\\\"}),d=o.map(function(t){return\\\"c\\\"+t+\\\"=this.stride[\\\"+t+\\\"]\\\"});a.push(\\\"proto.lo=function \\\"+r+\\\"_lo(\\\"+l.join(\\\",\\\")+\\\"){var b=this.offset,d=0,\\\"+p.join(\\\",\\\")+\\\",\\\"+d.join(\\\",\\\"));for(var g=0;g<e;++g)a.push(\\\"if(typeof i\\\"+g+\\\"==='number'&&i\\\"+g+\\\">=0){d=i\\\"+g+\\\"|0;b+=c\\\"+g+\\\"*d;a\\\"+g+\\\"-=d}\\\");a.push(\\\"return new \\\"+r+\\\"(this.data,\\\"+o.map(function(t){return\\\"a\\\"+t}).join(\\\",\\\")+\\\",\\\"+o.map(function(t){return\\\"c\\\"+t}).join(\\\",\\\")+\\\",b)}\\\"),a.push(\\\"proto.step=function \\\"+r+\\\"_step(\\\"+l.join(\\\",\\\")+\\\"){var \\\"+o.map(function(t){return\\\"a\\\"+t+\\\"=this.shape[\\\"+t+\\\"]\\\"}).join(\\\",\\\")+\\\",\\\"+o.map(function(t){return\\\"b\\\"+t+\\\"=this.stride[\\\"+t+\\\"]\\\"}).join(\\\",\\\")+\\\",c=this.offset,d=0,ceil=Math.ceil\\\");for(g=0;g<e;++g)a.push(\\\"if(typeof i\\\"+g+\\\"==='number'){d=i\\\"+g+\\\"|0;if(d<0){c+=b\\\"+g+\\\"*(a\\\"+g+\\\"-1);a\\\"+g+\\\"=ceil(-a\\\"+g+\\\"/d)}else{a\\\"+g+\\\"=ceil(a\\\"+g+\\\"/d)}b\\\"+g+\\\"*=d}\\\");a.push(\\\"return new \\\"+r+\\\"(this.data,\\\"+o.map(function(t){return\\\"a\\\"+t}).join(\\\",\\\")+\\\",\\\"+o.map(function(t){return\\\"b\\\"+t}).join(\\\",\\\")+\\\",c)}\\\");var v=new Array(e),m=new Array(e);for(g=0;g<e;++g)v[g]=\\\"a[i\\\"+g+\\\"]\\\",m[g]=\\\"b[i\\\"+g+\\\"]\\\";a.push(\\\"proto.transpose=function \\\"+r+\\\"_transpose(\\\"+l+\\\"){\\\"+l.map(function(t,e){return t+\\\"=(\\\"+t+\\\"===undefined?\\\"+e+\\\":\\\"+t+\\\"|0)\\\"}).join(\\\";\\\"),\\\"var a=this.shape,b=this.stride;return new \\\"+r+\\\"(this.data,\\\"+v.join(\\\",\\\")+\\\",\\\"+m.join(\\\",\\\")+\\\",this.offset)}\\\"),a.push(\\\"proto.pick=function \\\"+r+\\\"_pick(\\\"+l+\\\"){var a=[],b=[],c=this.offset\\\");for(g=0;g<e;++g)a.push(\\\"if(typeof i\\\"+g+\\\"==='number'&&i\\\"+g+\\\">=0){c=(c+this.stride[\\\"+g+\\\"]*i\\\"+g+\\\")|0}else{a.push(this.shape[\\\"+g+\\\"]);b.push(this.stride[\\\"+g+\\\"])}\\\");return a.push(\\\"var ctor=CTOR_LIST[a.length+1];return ctor(this.data,a,b,c)}\\\"),a.push(\\\"return function construct_\\\"+r+\\\"(data,shape,stride,offset){return new \\\"+r+\\\"(data,\\\"+o.map(function(t){return\\\"shape[\\\"+t+\\\"]\\\"}).join(\\\",\\\")+\\\",\\\"+o.map(function(t){return\\\"stride[\\\"+t+\\\"]\\\"}).join(\\\",\\\")+\\\",offset)}\\\"),new Function(\\\"CTOR_LIST\\\",\\\"ORDER\\\",a.join(\\\"\\\\n\\\"))(c[t],s)}var c={float32:[],float64:[],int8:[],int16:[],int32:[],uint8:[],uint16:[],uint32:[],array:[],uint8_clamped:[],buffer:[],generic:[]};e.exports=function(t,e,r,n){if(void 0===t)return(0,c.array[0])([]);\\\"number\\\"==typeof t&&(t=[t]),void 0===e&&(e=[t.length]);var o=e.length;if(void 0===r){r=new Array(o);for(var s=o-1,u=1;s>=0;--s)r[s]=u,u*=e[s]}if(void 0===n)for(n=0,s=0;s<o;++s)r[s]<0&&(n-=(e[s]-1)*r[s]);for(var f=function(t){if(i(t))return\\\"buffer\\\";if(a)switch(Object.prototype.toString.call(t)){case\\\"[object Float64Array]\\\":return\\\"float64\\\";case\\\"[object Float32Array]\\\":return\\\"float32\\\";case\\\"[object Int8Array]\\\":return\\\"int8\\\";case\\\"[object Int16Array]\\\":return\\\"int16\\\";case\\\"[object Int32Array]\\\":return\\\"int32\\\";case\\\"[object Uint8Array]\\\":return\\\"uint8\\\";case\\\"[object Uint16Array]\\\":return\\\"uint16\\\";case\\\"[object Uint32Array]\\\":return\\\"uint32\\\";case\\\"[object Uint8ClampedArray]\\\":return\\\"uint8_clamped\\\"}return Array.isArray(t)?\\\"array\\\":\\\"generic\\\"}(t),h=c[f];h.length<=o+1;)h.push(l(f,h.length-1));return(0,h[o+1])(t,e,r,n)}},{\\\"iota-array\\\":411,\\\"is-buffer\\\":413}],446:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"double-bits\\\"),i=Math.pow(2,-1074),a=-1>>>0;e.exports=function(t,e){if(isNaN(t)||isNaN(e))return NaN;if(t===e)return t;if(0===t)return e<0?-i:i;var r=n.hi(t),o=n.lo(t);e>t==t>0?o===a?(r+=1,o=0):o+=1:0===o?(o=a,r-=1):o-=1;return n.pack(o,r)}},{\\\"double-bits\\\":161}],447:[function(t,e,r){var n=Math.PI,i=c(120);function a(t,e,r,n){return[\\\"C\\\",t,e,r,n,r,n]}function o(t,e,r,n,i,a){return[\\\"C\\\",t/3+2/3*r,e/3+2/3*n,i/3+2/3*r,a/3+2/3*n,i,a]}function s(t,e,r,a,o,c,u,f,h,p){if(p)k=p[0],T=p[1],_=p[2],w=p[3];else{var d=l(t,e,-o);t=d.x,e=d.y;var g=(t-(f=(d=l(f,h,-o)).x))/2,v=(e-(h=d.y))/2,m=g*g/(r*r)+v*v/(a*a);m>1&&(r*=m=Math.sqrt(m),a*=m);var y=r*r,x=a*a,b=(c==u?-1:1)*Math.sqrt(Math.abs((y*x-y*v*v-x*g*g)/(y*v*v+x*g*g)));b==1/0&&(b=1);var _=b*r*v/a+(t+f)/2,w=b*-a*g/r+(e+h)/2,k=Math.asin(((e-w)/a).toFixed(9)),T=Math.asin(((h-w)/a).toFixed(9));(k=t<_?n-k:k)<0&&(k=2*n+k),(T=f<_?n-T:T)<0&&(T=2*n+T),u&&k>T&&(k-=2*n),!u&&T>k&&(T-=2*n)}if(Math.abs(T-k)>i){var A=T,M=f,S=h;T=k+i*(u&&T>k?1:-1);var E=s(f=_+r*Math.cos(T),h=w+a*Math.sin(T),r,a,o,0,u,M,S,[T,A,_,w])}var C=Math.tan((T-k)/4),L=4/3*r*C,z=4/3*a*C,O=[2*t-(t+L*Math.sin(k)),2*e-(e-z*Math.cos(k)),f+L*Math.sin(T),h-z*Math.cos(T),f,h];if(p)return O;E&&(O=O.concat(E));for(var I=0;I<O.length;){var D=l(O[I],O[I+1],o);O[I++]=D.x,O[I++]=D.y}return O}function l(t,e,r){return{x:t*Math.cos(r)-e*Math.sin(r),y:t*Math.sin(r)+e*Math.cos(r)}}function c(t){return t*(n/180)}e.exports=function(t){for(var e,r=[],n=0,i=0,l=0,u=0,f=null,h=null,p=0,d=0,g=0,v=t.length;g<v;g++){var m=t[g],y=m[0];switch(y){case\\\"M\\\":l=m[1],u=m[2];break;case\\\"A\\\":(m=s(p,d,m[1],m[2],c(m[3]),m[4],m[5],m[6],m[7])).unshift(\\\"C\\\"),m.length>7&&(r.push(m.splice(0,7)),m.unshift(\\\"C\\\"));break;case\\\"S\\\":var x=p,b=d;\\\"C\\\"!=e&&\\\"S\\\"!=e||(x+=x-n,b+=b-i),m=[\\\"C\\\",x,b,m[1],m[2],m[3],m[4]];break;case\\\"T\\\":\\\"Q\\\"==e||\\\"T\\\"==e?(f=2*p-f,h=2*d-h):(f=p,h=d),m=o(p,d,f,h,m[1],m[2]);break;case\\\"Q\\\":f=m[1],h=m[2],m=o(p,d,m[1],m[2],m[3],m[4]);break;case\\\"L\\\":m=a(p,d,m[1],m[2]);break;case\\\"H\\\":m=a(p,d,m[1],d);break;case\\\"V\\\":m=a(p,d,p,m[1]);break;case\\\"Z\\\":m=a(p,d,l,u)}e=y,p=m[m.length-2],d=m[m.length-1],m.length>4?(n=m[m.length-4],i=m[m.length-3]):(n=p,i=d),r.push(m)}return r}},{}],448:[function(t,e,r){r.vertexNormals=function(t,e,r){for(var n=e.length,i=new Array(n),a=void 0===r?1e-6:r,o=0;o<n;++o)i[o]=[0,0,0];for(o=0;o<t.length;++o)for(var s=t[o],l=0,c=s[s.length-1],u=s[0],f=0;f<s.length;++f){l=c,c=u,u=s[(f+1)%s.length];for(var h=e[l],p=e[c],d=e[u],g=new Array(3),v=0,m=new Array(3),y=0,x=0;x<3;++x)g[x]=h[x]-p[x],v+=g[x]*g[x],m[x]=d[x]-p[x],y+=m[x]*m[x];if(v*y>a){var b=i[c],_=1/Math.sqrt(v*y);for(x=0;x<3;++x){var w=(x+1)%3,k=(x+2)%3;b[x]+=_*(m[w]*g[k]-m[k]*g[w])}}}for(o=0;o<n;++o){b=i[o];var T=0;for(x=0;x<3;++x)T+=b[x]*b[x];if(T>a)for(_=1/Math.sqrt(T),x=0;x<3;++x)b[x]*=_;else for(x=0;x<3;++x)b[x]=0}return i},r.faceNormals=function(t,e,r){for(var n=t.length,i=new Array(n),a=void 0===r?1e-6:r,o=0;o<n;++o){for(var s=t[o],l=new Array(3),c=0;c<3;++c)l[c]=e[s[c]];var u=new Array(3),f=new Array(3);for(c=0;c<3;++c)u[c]=l[1][c]-l[0][c],f[c]=l[2][c]-l[0][c];var h=new Array(3),p=0;for(c=0;c<3;++c){var d=(c+1)%3,g=(c+2)%3;h[c]=u[d]*f[g]-u[g]*f[d],p+=h[c]*h[c]}p=p>a?1/Math.sqrt(p):0;for(c=0;c<3;++c)h[c]*=p;i[o]=h}return i}},{}],449:[function(t,e,r){\\\"use strict\\\";var n=Object.getOwnPropertySymbols,i=Object.prototype.hasOwnProperty,a=Object.prototype.propertyIsEnumerable;e.exports=function(){try{if(!Object.assign)return!1;var t=new String(\\\"abc\\\");if(t[5]=\\\"de\\\",\\\"5\\\"===Object.getOwnPropertyNames(t)[0])return!1;for(var e={},r=0;r<10;r++)e[\\\"_\\\"+String.fromCharCode(r)]=r;if(\\\"0123456789\\\"!==Object.getOwnPropertyNames(e).map(function(t){return e[t]}).join(\\\"\\\"))return!1;var n={};return\\\"abcdefghijklmnopqrst\\\".split(\\\"\\\").forEach(function(t){n[t]=t}),\\\"abcdefghijklmnopqrst\\\"===Object.keys(Object.assign({},n)).join(\\\"\\\")}catch(t){return!1}}()?Object.assign:function(t,e){for(var r,o,s=function(t){if(null==t)throw new TypeError(\\\"Object.assign cannot be called with null or undefined\\\");return Object(t)}(t),l=1;l<arguments.length;l++){for(var c in r=Object(arguments[l]))i.call(r,c)&&(s[c]=r[c]);if(n){o=n(r);for(var u=0;u<o.length;u++)a.call(r,o[u])&&(s[o[u]]=r[o[u]])}}return s}},{}],450:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,n,i,a,o,s,l,c){var u=e+a+c;if(f>0){var f=Math.sqrt(u+1);t[0]=.5*(o-l)/f,t[1]=.5*(s-n)/f,t[2]=.5*(r-a)/f,t[3]=.5*f}else{var h=Math.max(e,a,c),f=Math.sqrt(2*h-u+1);e>=h?(t[0]=.5*f,t[1]=.5*(i+r)/f,t[2]=.5*(s+n)/f,t[3]=.5*(o-l)/f):a>=h?(t[0]=.5*(r+i)/f,t[1]=.5*f,t[2]=.5*(l+o)/f,t[3]=.5*(s-n)/f):(t[0]=.5*(n+s)/f,t[1]=.5*(o+l)/f,t[2]=.5*f,t[3]=.5*(r-i)/f)}return t}},{}],451:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=(t=t||{}).center||[0,0,0],r=t.rotation||[0,0,0,1],n=t.radius||1;e=[].slice.call(e,0,3),u(r=[].slice.call(r,0,4),r);var i=new f(r,e,Math.log(n));i.setDistanceLimits(t.zoomMin,t.zoomMax),(\\\"eye\\\"in t||\\\"up\\\"in t)&&i.lookAt(0,t.eye,t.center,t.up);return i};var n=t(\\\"filtered-vector\\\"),i=t(\\\"gl-mat4/lookAt\\\"),a=t(\\\"gl-mat4/fromQuat\\\"),o=t(\\\"gl-mat4/invert\\\"),s=t(\\\"./lib/quatFromFrame\\\");function l(t,e,r){return Math.sqrt(Math.pow(t,2)+Math.pow(e,2)+Math.pow(r,2))}function c(t,e,r,n){return Math.sqrt(Math.pow(t,2)+Math.pow(e,2)+Math.pow(r,2)+Math.pow(n,2))}function u(t,e){var r=e[0],n=e[1],i=e[2],a=e[3],o=c(r,n,i,a);o>1e-6?(t[0]=r/o,t[1]=n/o,t[2]=i/o,t[3]=a/o):(t[0]=t[1]=t[2]=0,t[3]=1)}function f(t,e,r){this.radius=n([r]),this.center=n(e),this.rotation=n(t),this.computedRadius=this.radius.curve(0),this.computedCenter=this.center.curve(0),this.computedRotation=this.rotation.curve(0),this.computedUp=[.1,0,0],this.computedEye=[.1,0,0],this.computedMatrix=[.1,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0],this.recalcMatrix(0)}var h=f.prototype;h.lastT=function(){return Math.max(this.radius.lastT(),this.center.lastT(),this.rotation.lastT())},h.recalcMatrix=function(t){this.radius.curve(t),this.center.curve(t),this.rotation.curve(t);var e=this.computedRotation;u(e,e);var r=this.computedMatrix;a(r,e);var n=this.computedCenter,i=this.computedEye,o=this.computedUp,s=Math.exp(this.computedRadius[0]);i[0]=n[0]+s*r[2],i[1]=n[1]+s*r[6],i[2]=n[2]+s*r[10],o[0]=r[1],o[1]=r[5],o[2]=r[9];for(var l=0;l<3;++l){for(var c=0,f=0;f<3;++f)c+=r[l+4*f]*i[f];r[12+l]=-c}},h.getMatrix=function(t,e){this.recalcMatrix(t);var r=this.computedMatrix;if(e){for(var n=0;n<16;++n)e[n]=r[n];return e}return r},h.idle=function(t){this.center.idle(t),this.radius.idle(t),this.rotation.idle(t)},h.flush=function(t){this.center.flush(t),this.radius.flush(t),this.rotation.flush(t)},h.pan=function(t,e,r,n){e=e||0,r=r||0,n=n||0,this.recalcMatrix(t);var i=this.computedMatrix,a=i[1],o=i[5],s=i[9],c=l(a,o,s);a/=c,o/=c,s/=c;var u=i[0],f=i[4],h=i[8],p=u*a+f*o+h*s,d=l(u-=a*p,f-=o*p,h-=s*p);u/=d,f/=d,h/=d;var g=i[2],v=i[6],m=i[10],y=g*a+v*o+m*s,x=g*u+v*f+m*h,b=l(g-=y*a+x*u,v-=y*o+x*f,m-=y*s+x*h);g/=b,v/=b,m/=b;var _=u*e+a*r,w=f*e+o*r,k=h*e+s*r;this.center.move(t,_,w,k);var T=Math.exp(this.computedRadius[0]);T=Math.max(1e-4,T+n),this.radius.set(t,Math.log(T))},h.rotate=function(t,e,r,n){this.recalcMatrix(t),e=e||0,r=r||0;var i=this.computedMatrix,a=i[0],o=i[4],s=i[8],u=i[1],f=i[5],h=i[9],p=i[2],d=i[6],g=i[10],v=e*a+r*u,m=e*o+r*f,y=e*s+r*h,x=-(d*y-g*m),b=-(g*v-p*y),_=-(p*m-d*v),w=Math.sqrt(Math.max(0,1-Math.pow(x,2)-Math.pow(b,2)-Math.pow(_,2))),k=c(x,b,_,w);k>1e-6?(x/=k,b/=k,_/=k,w/=k):(x=b=_=0,w=1);var T=this.computedRotation,A=T[0],M=T[1],S=T[2],E=T[3],C=A*w+E*x+M*_-S*b,L=M*w+E*b+S*x-A*_,z=S*w+E*_+A*b-M*x,O=E*w-A*x-M*b-S*_;if(n){x=p,b=d,_=g;var I=Math.sin(n)/l(x,b,_);x*=I,b*=I,_*=I,O=O*(w=Math.cos(e))-(C=C*w+O*x+L*_-z*b)*x-(L=L*w+O*b+z*x-C*_)*b-(z=z*w+O*_+C*b-L*x)*_}var D=c(C,L,z,O);D>1e-6?(C/=D,L/=D,z/=D,O/=D):(C=L=z=0,O=1),this.rotation.set(t,C,L,z,O)},h.lookAt=function(t,e,r,n){this.recalcMatrix(t),r=r||this.computedCenter,e=e||this.computedEye,n=n||this.computedUp;var a=this.computedMatrix;i(a,e,r,n);var o=this.computedRotation;s(o,a[0],a[1],a[2],a[4],a[5],a[6],a[8],a[9],a[10]),u(o,o),this.rotation.set(t,o[0],o[1],o[2],o[3]);for(var l=0,c=0;c<3;++c)l+=Math.pow(r[c]-e[c],2);this.radius.set(t,.5*Math.log(Math.max(l,1e-6))),this.center.set(t,r[0],r[1],r[2])},h.translate=function(t,e,r,n){this.center.move(t,e||0,r||0,n||0)},h.setMatrix=function(t,e){var r=this.computedRotation;s(r,e[0],e[1],e[2],e[4],e[5],e[6],e[8],e[9],e[10]),u(r,r),this.rotation.set(t,r[0],r[1],r[2],r[3]);var n=this.computedMatrix;o(n,e);var i=n[15];if(Math.abs(i)>1e-6){var a=n[12]/i,l=n[13]/i,c=n[14]/i;this.recalcMatrix(t);var f=Math.exp(this.computedRadius[0]);this.center.set(t,a-n[2]*f,l-n[6]*f,c-n[10]*f),this.radius.idle(t)}else this.center.idle(t),this.radius.idle(t)},h.setDistance=function(t,e){e>0&&this.radius.set(t,Math.log(e))},h.setDistanceLimits=function(t,e){t=t>0?Math.log(t):-1/0,e=e>0?Math.log(e):1/0,e=Math.max(e,t),this.radius.bounds[0][0]=t,this.radius.bounds[1][0]=e},h.getDistanceLimits=function(t){var e=this.radius.bounds;return t?(t[0]=Math.exp(e[0][0]),t[1]=Math.exp(e[1][0]),t):[Math.exp(e[0][0]),Math.exp(e[1][0])]},h.toJSON=function(){return this.recalcMatrix(this.lastT()),{center:this.computedCenter.slice(),rotation:this.computedRotation.slice(),distance:Math.log(this.computedRadius[0]),zoomMin:this.radius.bounds[0][0],zoomMax:this.radius.bounds[1][0]}},h.fromJSON=function(t){var e=this.lastT(),r=t.center;r&&this.center.set(e,r[0],r[1],r[2]);var n=t.rotation;n&&this.rotation.set(e,n[0],n[1],n[2],n[3]);var i=t.distance;i&&i>0&&this.radius.set(e,Math.log(i)),this.setDistanceLimits(t.zoomMin,t.zoomMax)}},{\\\"./lib/quatFromFrame\\\":450,\\\"filtered-vector\\\":225,\\\"gl-mat4/fromQuat\\\":261,\\\"gl-mat4/invert\\\":264,\\\"gl-mat4/lookAt\\\":265}],452:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"repeat-string\\\");e.exports=function(t,e,r){return n(r=\\\"undefined\\\"!=typeof r?r+\\\"\\\":\\\" \\\",e)+t}},{\\\"repeat-string\\\":490}],453:[function(t,e,r){\\\"use strict\\\";function n(t,e){if(\\\"string\\\"!=typeof t)return[t];var r=[t];\\\"string\\\"==typeof e||Array.isArray(e)?e={brackets:e}:e||(e={});var n=e.brackets?Array.isArray(e.brackets)?e.brackets:[e.brackets]:[\\\"{}\\\",\\\"[]\\\",\\\"()\\\"],i=e.escape||\\\"___\\\",a=!!e.flat;n.forEach(function(t){var e=new RegExp([\\\"\\\\\\\\\\\",t[0],\\\"[^\\\\\\\\\\\",t[0],\\\"\\\\\\\\\\\",t[1],\\\"]*\\\\\\\\\\\",t[1]].join(\\\"\\\")),n=[];function a(e,a,o){var s=r.push(e.slice(t[0].length,-t[1].length))-1;return n.push(s),i+s}r.forEach(function(t,n){for(var i,o=0;t!=i;)if(i=t,t=t.replace(e,a),o++>1e4)throw Error(\\\"References have circular dependency. Please, check them.\\\");r[n]=t}),n=n.reverse(),r=r.map(function(e){return n.forEach(function(r){e=e.replace(new RegExp(\\\"(\\\\\\\\\\\"+i+r+\\\"(?![0-9]))\\\",\\\"g\\\"),t[0]+\\\"$1\\\"+t[1])}),e})});var o=new RegExp(\\\"\\\\\\\\\\\"+i+\\\"([0-9]+)\\\");return a?r:function t(e,r,n){for(var i,a=[],s=0;i=o.exec(e);){if(s++>1e4)throw Error(\\\"Circular references in parenthesis\\\");a.push(e.slice(0,i.index)),a.push(t(r[i[1]],r)),e=e.slice(i.index+i[0].length)}return a.push(e),a}(r[0],r)}function i(t,e){if(e&&e.flat){var r,n=e&&e.escape||\\\"___\\\",i=t[0];if(!i)return\\\"\\\";for(var a=new RegExp(\\\"\\\\\\\\\\\"+n+\\\"([0-9]+)\\\"),o=0;i!=r;){if(o++>1e4)throw Error(\\\"Circular references in \\\"+t);r=i,i=i.replace(a,s)}return i}return t.reduce(function t(e,r){return Array.isArray(r)&&(r=r.reduce(t,\\\"\\\")),e+r},\\\"\\\");function s(e,r){if(null==t[r])throw Error(\\\"Reference \\\"+r+\\\"is undefined\\\");return t[r]}}function a(t,e){return Array.isArray(t)?i(t,e):n(t,e)}a.parse=n,a.stringify=i,e.exports=a},{}],454:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"pick-by-alias\\\");e.exports=function(t){var e;arguments.length>1&&(t=arguments);\\\"string\\\"==typeof t?t=t.split(/\\\\s/).map(parseFloat):\\\"number\\\"==typeof t&&(t=[t]);t.length&&\\\"number\\\"==typeof t[0]?e=1===t.length?{width:t[0],height:t[0],x:0,y:0}:2===t.length?{width:t[0],height:t[1],x:0,y:0}:{x:t[0],y:t[1],width:t[2]-t[0]||0,height:t[3]-t[1]||0}:t&&(t=n(t,{left:\\\"x l left Left\\\",top:\\\"y t top Top\\\",width:\\\"w width W Width\\\",height:\\\"h height W Width\\\",bottom:\\\"b bottom Bottom\\\",right:\\\"r right Right\\\"}),e={x:t.left||0,y:t.top||0},null==t.width?t.right?e.width=t.right-e.x:e.width=0:e.width=t.width,null==t.height?t.bottom?e.height=t.bottom-e.y:e.height=0:e.height=t.height);return e}},{\\\"pick-by-alias\\\":460}],455:[function(t,e,r){e.exports=function(t){var e=[];return t.replace(i,function(t,r,i){var o=r.toLowerCase();for(i=function(t){var e=t.match(a);return e?e.map(Number):[]}(i),\\\"m\\\"==o&&i.length>2&&(e.push([r].concat(i.splice(0,2))),o=\\\"l\\\",r=\\\"m\\\"==r?\\\"l\\\":\\\"L\\\");;){if(i.length==n[o])return i.unshift(r),e.push(i);if(i.length<n[o])throw new Error(\\\"malformed path data\\\");e.push([r].concat(i.splice(0,n[o])))}}),e};var n={a:7,c:6,h:1,l:2,m:2,q:4,s:4,t:2,v:1,z:0},i=/([astvzqmhlc])([^astvzqmhlc]*)/gi;var a=/-?[0-9]*\\\\.?[0-9]+(?:e[-+]?\\\\d+)?/gi},{}],456:[function(t,e,r){e.exports=function(t,e){e||(e=[0,\\\"\\\"]),t=String(t);var r=parseFloat(t,10);return e[0]=r,e[1]=t.match(/[\\\\d.\\\\-\\\\+]*\\\\s*(.*)/)[1]||\\\"\\\",e}},{}],457:[function(t,e,r){(function(t){(function(){var r,n,i,a,o,s;\\\"undefined\\\"!=typeof performance&&null!==performance&&performance.now?e.exports=function(){return performance.now()}:\\\"undefined\\\"!=typeof t&&null!==t&&t.hrtime?(e.exports=function(){return(r()-o)/1e6},n=t.hrtime,a=(r=function(){var t;return 1e9*(t=n())[0]+t[1]})(),s=1e9*t.uptime(),o=a-s):Date.now?(e.exports=function(){return Date.now()-i},i=Date.now()):(e.exports=function(){return(new Date).getTime()-i},i=(new Date).getTime())}).call(this)}).call(this,t(\\\"_process\\\"))},{_process:477}],458:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=t.length;if(e<n){for(var r=1,a=0;a<e;++a)for(var o=0;o<a;++o)if(t[a]<t[o])r=-r;else if(t[a]===t[o])return 0;return r}for(var s=i.mallocUint8(e),a=0;a<e;++a)s[a]=0;for(var r=1,a=0;a<e;++a)if(!s[a]){var l=1;s[a]=1;for(var o=t[a];o!==a;o=t[o]){if(s[o])return i.freeUint8(s),0;l+=1,s[o]=1}1&l||(r=-r)}return i.freeUint8(s),r};var n=32,i=t(\\\"typedarray-pool\\\")},{\\\"typedarray-pool\\\":532}],459:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"typedarray-pool\\\"),i=t(\\\"invert-permutation\\\");r.rank=function(t){var e=t.length;switch(e){case 0:case 1:return 0;case 2:return t[1]}var r,a,o,s=n.mallocUint32(e),l=n.mallocUint32(e),c=0;for(i(t,l),o=0;o<e;++o)s[o]=t[o];for(o=e-1;o>0;--o)a=l[o],r=s[o],s[o]=s[a],s[a]=r,l[o]=l[r],l[r]=a,c=(c+r)*o;return n.freeUint32(l),n.freeUint32(s),c},r.unrank=function(t,e,r){switch(t){case 0:return r||[];case 1:return r?(r[0]=0,r):[0];case 2:return r?(e?(r[0]=0,r[1]=1):(r[0]=1,r[1]=0),r):e?[0,1]:[1,0]}var n,i,a,o=1;for((r=r||new Array(t))[0]=0,a=1;a<t;++a)r[a]=a,o=o*a|0;for(a=t-1;a>0;--a)e=e-(n=e/o|0)*o|0,o=o/a|0,i=0|r[a],r[a]=0|r[n],r[n]=0|i;return r}},{\\\"invert-permutation\\\":410,\\\"typedarray-pool\\\":532}],460:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){var n,a,o={};if(\\\"string\\\"==typeof e&&(e=i(e)),Array.isArray(e)){var s={};for(a=0;a<e.length;a++)s[e[a]]=!0;e=s}for(n in e)e[n]=i(e[n]);var l={};for(n in e){var c=e[n];if(Array.isArray(c))for(a=0;a<c.length;a++){var u=c[a];if(r&&(l[u]=!0),u in t){if(o[n]=t[u],r)for(var f=a;f<c.length;f++)l[c[f]]=!0;break}}else n in t&&(e[n]&&(o[n]=t[n]),r&&(l[n]=!0))}if(r)for(n in t)l[n]||(o[n]=t[n]);return o};var n={};function i(t){return n[t]?n[t]:(\\\"string\\\"==typeof t&&(t=n[t]=t.split(/\\\\s*,\\\\s*|\\\\s+/)),t)}},{}],461:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){for(var r=0|e.length,i=t.length,a=[new Array(r),new Array(r)],o=0;o<r;++o)a[0][o]=[],a[1][o]=[];for(var o=0;o<i;++o){var s=t[o];a[0][s[0]].push(s),a[1][s[1]].push(s)}for(var l=[],o=0;o<r;++o)a[0][o].length+a[1][o].length===0&&l.push([o]);function c(t,e){var r=a[e][t[e]];r.splice(r.indexOf(t),1)}function u(t,r,i){for(var o,s,l,u=0;u<2;++u)if(a[u][r].length>0){o=a[u][r][0],l=u;break}s=o[1^l];for(var f=0;f<2;++f)for(var h=a[f][r],p=0;p<h.length;++p){var d=h[p],g=d[1^f],v=n(e[t],e[r],e[s],e[g]);v>0&&(o=d,s=g,l=f)}return i?s:(o&&c(o,l),s)}function f(t,r){var i=a[r][t][0],o=[t];c(i,r);for(var s=i[1^r];;){for(;s!==t;)o.push(s),s=u(o[o.length-2],s,!1);if(a[0][t].length+a[1][t].length===0)break;var l=o[o.length-1],f=t,h=o[1],p=u(l,f,!0);if(n(e[l],e[f],e[h],e[p])<0)break;o.push(t),s=u(l,f)}return o}function h(t,e){return e[1]===e[e.length-1]}for(var o=0;o<r;++o)for(var p=0;p<2;++p){for(var d=[];a[p][o].length>0;){a[0][o].length;var g=f(o,p);h(d,g)?d.push.apply(d,g):(d.length>0&&l.push(d),d=g)}d.length>0&&l.push(d)}return l};var n=t(\\\"compare-angle\\\")},{\\\"compare-angle\\\":120}],462:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){for(var r=n(t,e.length),i=new Array(e.length),a=new Array(e.length),o=[],s=0;s<e.length;++s){var l=r[s].length;a[s]=l,i[s]=!0,l<=1&&o.push(s)}for(;o.length>0;){var c=o.pop();i[c]=!1;for(var u=r[c],s=0;s<u.length;++s){var f=u[s];0==--a[f]&&o.push(f)}}for(var h=new Array(e.length),p=[],s=0;s<e.length;++s)if(i[s]){var c=p.length;h[s]=c,p.push(e[s])}else h[s]=-1;for(var d=[],s=0;s<t.length;++s){var g=t[s];i[g[0]]&&i[g[1]]&&d.push([h[g[0]],h[g[1]]])}return[d,p]};var n=t(\\\"edges-to-adjacency-list\\\")},{\\\"edges-to-adjacency-list\\\":166}],463:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){var r=c(t,e);t=r[0];for(var f=(e=r[1]).length,h=(t.length,n(t,e.length)),p=0;p<f;++p)if(h[p].length%2==1)throw new Error(\\\"planar-graph-to-polyline: graph must be manifold\\\");var d=i(t,e);for(var g=(d=d.filter(function(t){for(var r=t.length,n=[0],i=0;i<r;++i){var a=e[t[i]],l=e[t[(i+1)%r]],c=o(-a[0],a[1]),u=o(-a[0],l[1]),f=o(l[0],a[1]),h=o(l[0],l[1]);n=s(n,s(s(c,u),s(f,h)))}return n[n.length-1]>0})).length,v=new Array(g),m=new Array(g),p=0;p<g;++p){v[p]=p;var y=new Array(g),x=d[p].map(function(t){return e[t]}),b=a([x]),_=0;t:for(var w=0;w<g;++w)if(y[w]=0,p!==w){for(var k=d[w],T=k.length,A=0;A<T;++A){var M=b(e[k[A]]);if(0!==M){M<0&&(y[w]=1,_+=1);continue t}}y[w]=1,_+=1}m[p]=[_,p,y]}m.sort(function(t,e){return e[0]-t[0]});for(var p=0;p<g;++p)for(var y=m[p],S=y[1],E=y[2],w=0;w<g;++w)E[w]&&(v[w]=S);for(var C=function(t){for(var e=new Array(t),r=0;r<t;++r)e[r]=[];return e}(g),p=0;p<g;++p)C[p].push(v[p]),C[v[p]].push(p);for(var L={},z=u(f,!1),p=0;p<g;++p)for(var k=d[p],T=k.length,w=0;w<T;++w){var O=k[w],I=k[(w+1)%T],D=Math.min(O,I)+\\\":\\\"+Math.max(O,I);if(D in L){var P=L[D];C[P].push(p),C[p].push(P),z[O]=z[I]=!0}else L[D]=p}function R(t){for(var e=t.length,r=0;r<e;++r)if(!z[t[r]])return!1;return!0}for(var F=[],B=u(g,-1),p=0;p<g;++p)v[p]!==p||R(d[p])?B[p]=-1:(F.push(p),B[p]=0);var r=[];for(;F.length>0;){var N=F.pop(),j=C[N];l(j,function(t,e){return t-e});var V,U=j.length,H=B[N];if(0===H){var k=d[N];V=[k]}for(var p=0;p<U;++p){var q=j[p];if(!(B[q]>=0)&&(B[q]=1^H,F.push(q),0===H)){var k=d[q];R(k)||(k.reverse(),V.push(k))}}0===H&&r.push(V)}return r};var n=t(\\\"edges-to-adjacency-list\\\"),i=t(\\\"planar-dual\\\"),a=t(\\\"point-in-big-polygon\\\"),o=t(\\\"two-product\\\"),s=t(\\\"robust-sum\\\"),l=t(\\\"uniq\\\"),c=t(\\\"./lib/trim-leaves\\\");function u(t,e){for(var r=new Array(t),n=0;n<t;++n)r[n]=e;return r}},{\\\"./lib/trim-leaves\\\":462,\\\"edges-to-adjacency-list\\\":166,\\\"planar-dual\\\":461,\\\"point-in-big-polygon\\\":467,\\\"robust-sum\\\":502,\\\"two-product\\\":530,uniq:534}],464:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"./quad\\\")},{\\\"./quad\\\":466}],465:[function(t,e,r){arguments[4][104][0].apply(r,arguments)},{dup:104}],466:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"binary-search-bounds\\\"),i=t(\\\"clamp\\\"),a=t(\\\"parse-rect\\\"),o=t(\\\"array-bounds\\\"),s=t(\\\"pick-by-alias\\\"),l=t(\\\"defined\\\"),c=t(\\\"flatten-vertex-data\\\"),u=t(\\\"is-obj\\\"),f=t(\\\"dtype\\\"),h=t(\\\"math-log2\\\");function p(t,e){for(var r=e[0],n=e[1],a=1/(e[2]-r),o=1/(e[3]-n),s=new Array(t.length),l=0,c=t.length/2;l<c;l++)s[2*l]=i((t[2*l]-r)*a,0,1),s[2*l+1]=i((t[2*l+1]-n)*o,0,1);return s}e.exports=function(t,e){e||(e={}),t=c(t,\\\"float64\\\"),e=s(e,{bounds:\\\"range bounds dataBox databox\\\",maxDepth:\\\"depth maxDepth maxdepth level maxLevel maxlevel levels\\\",dtype:\\\"type dtype format out dst output destination\\\"});var r=l(e.maxDepth,255),i=l(e.bounds,o(t,2));i[0]===i[2]&&i[2]++,i[1]===i[3]&&i[3]++;var d,g=p(t,i),v=t.length>>>1;e.dtype||(e.dtype=\\\"array\\\"),\\\"string\\\"==typeof e.dtype?d=new(f(e.dtype))(v):e.dtype&&(d=e.dtype,Array.isArray(d)&&(d.length=v));for(var m=0;m<v;++m)d[m]=m;var y=[],x=[],b=[],_=[];!function t(e,n,i,a,o,s){if(!a.length)return null;var l=y[o]||(y[o]=[]);var c=b[o]||(b[o]=[]);var u=x[o]||(x[o]=[]);var f=l.length;o++;if(o>r){for(var h=0;h<a.length;h++)l.push(a[h]),c.push(s),u.push(null,null,null,null);return f}l.push(a[0]);c.push(s);if(a.length<=1)return u.push(null,null,null,null),f;var p=.5*i;var d=e+p,v=n+p;var m=[],_=[],w=[],k=[];for(var T=1,A=a.length;T<A;T++){var M=a[T],S=g[2*M],E=g[2*M+1];S<d?E<v?m.push(M):_.push(M):E<v?w.push(M):k.push(M)}s<<=2;u.push(t(e,n,p,m,o,s),t(e,v,p,_,o,s+1),t(d,n,p,w,o,s+2),t(d,v,p,k,o,s+3));return f}(0,0,1,d,0,1);for(var w=0,k=0;k<y.length;k++){var T=y[k];if(d.set)d.set(T,w);else for(var A=0,M=T.length;A<M;A++)d[A+w]=T[A];var S=w+y[k].length;_[k]=[w,S],w=S}return d.range=function(){var e,r=[],o=arguments.length;for(;o--;)r[o]=arguments[o];if(u(r[r.length-1])){var c=r.pop();r.length||null==c.x&&null==c.l&&null==c.left||(r=[c],e={}),e=s(c,{level:\\\"level maxLevel\\\",d:\\\"d diam diameter r radius px pxSize pixel pixelSize maxD size minSize\\\",lod:\\\"lod details ranges offsets\\\"})}else e={};r.length||(r=i);var f=a.apply(void 0,r),d=[Math.min(f.x,f.x+f.width),Math.min(f.y,f.y+f.height),Math.max(f.x,f.x+f.width),Math.max(f.y,f.y+f.height)],g=d[0],v=d[1],m=d[2],w=d[3],k=p([g,v,m,w],i),T=k[0],A=k[1],M=k[2],S=k[3],C=l(e.level,y.length);if(null!=e.d){var L;\\\"number\\\"==typeof e.d?L=[e.d,e.d]:e.d.length&&(L=e.d),C=Math.min(Math.max(Math.ceil(-h(Math.abs(L[0])/(i[2]-i[0]))),Math.ceil(-h(Math.abs(L[1])/(i[3]-i[1])))),C)}if(C=Math.min(C,y.length),e.lod)return function(t,e,r,i,a){for(var o=[],s=0;s<a;s++){var l=b[s],c=_[s][0],u=E(t,e,s),f=E(r,i,s),h=n.ge(l,u),p=n.gt(l,f,h,l.length-1);o[s]=[h+c,p+c]}return o}(T,A,M,S,C);var z=[];return function e(r,n,i,a,o,s){if(null!==o&&null!==s){var l=r+i,c=n+i;if(!(T>l||A>c||M<r||S<n||a>=C||o===s)){var u=y[a];void 0===s&&(s=u.length);for(var f=o;f<s;f++){var h=u[f],p=t[2*h],d=t[2*h+1];p>=g&&p<=m&&d>=v&&d<=w&&z.push(h)}var b=x[a],_=b[4*o+0],k=b[4*o+1],E=b[4*o+2],L=b[4*o+3],O=function(t,e){for(var r=null,n=0;null===r;)if(r=t[4*e+n],++n>t.length)return null;return r}(b,o+1),I=.5*i,D=a+1;e(r,n,I,D,_,k||E||L||O),e(r,n+I,I,D,k,E||L||O),e(r+I,n,I,D,E,L||O),e(r+I,n+I,I,D,L,O)}}}(0,0,1,0,0,1),z},d;function E(t,e,r){for(var n=1,i=.5,a=.5,o=.5,s=0;s<r;s++)n<<=2,n+=t<i?e<a?0:1:e<a?2:3,o*=.5,i+=t<i?-o:o,a+=e<a?-o:o;return n}}},{\\\"array-bounds\\\":58,\\\"binary-search-bounds\\\":465,clamp:108,defined:158,dtype:163,\\\"flatten-vertex-data\\\":226,\\\"is-obj\\\":416,\\\"math-log2\\\":427,\\\"parse-rect\\\":454,\\\"pick-by-alias\\\":460}],467:[function(t,e,r){e.exports=function(t){for(var e=t.length,r=[],a=[],s=0;s<e;++s)for(var u=t[s],f=u.length,h=f-1,p=0;p<f;h=p++){var d=u[h],g=u[p];d[0]===g[0]?a.push([d,g]):r.push([d,g])}if(0===r.length)return 0===a.length?c:(v=l(a),function(t){return v(t[0],t[1])?0:1});var v;var m=i(r),y=function(t,e){return function(r){var i=o.le(e,r[0]);if(i<0)return 1;var a=t[i];if(!a){if(!(i>0&&e[i]===r[0]))return 1;a=t[i-1]}for(var s=1;a;){var l=a.key,c=n(r,l[0],l[1]);if(l[0][0]<l[1][0])if(c<0)a=a.left;else{if(!(c>0))return 0;s=-1,a=a.right}else if(c>0)a=a.left;else{if(!(c<0))return 0;s=1,a=a.right}}return s}}(m.slabs,m.coordinates);return 0===a.length?y:function(t,e){return function(r){return t(r[0],r[1])?0:e(r)}}(l(a),y)};var n=t(\\\"robust-orientation\\\")[3],i=t(\\\"slab-decomposition\\\"),a=t(\\\"interval-tree-1d\\\"),o=t(\\\"binary-search-bounds\\\");function s(){return!0}function l(t){for(var e={},r=0;r<t.length;++r){var n=t[r],i=n[0][0],o=n[0][1],l=n[1][1],c=[Math.min(o,l),Math.max(o,l)];i in e?e[i].push(c):e[i]=[c]}var u={},f=Object.keys(e);for(r=0;r<f.length;++r){var h=e[f[r]];u[f[r]]=a(h)}return function(t){return function(e,r){var n=t[e];return!!n&&!!n.queryPoint(r,s)}}(u)}function c(t){return 1}},{\\\"binary-search-bounds\\\":84,\\\"interval-tree-1d\\\":409,\\\"robust-orientation\\\":497,\\\"slab-decomposition\\\":513}],468:[function(t,e,r){var n,i=t(\\\"./lib/build-log\\\"),a=t(\\\"./lib/epsilon\\\"),o=t(\\\"./lib/intersecter\\\"),s=t(\\\"./lib/segment-chainer\\\"),l=t(\\\"./lib/segment-selector\\\"),c=t(\\\"./lib/geojson\\\"),u=!1,f=a();function h(t,e,r){var i=n.segments(t),a=n.segments(e),o=r(n.combine(i,a));return n.polygon(o)}n={buildLog:function(t){return!0===t?u=i():!1===t&&(u=!1),!1!==u&&u.list},epsilon:function(t){return f.epsilon(t)},segments:function(t){var e=o(!0,f,u);return t.regions.forEach(e.addRegion),{segments:e.calculate(t.inverted),inverted:t.inverted}},combine:function(t,e){return{combined:o(!1,f,u).calculate(t.segments,t.inverted,e.segments,e.inverted),inverted1:t.inverted,inverted2:e.inverted}},selectUnion:function(t){return{segments:l.union(t.combined,u),inverted:t.inverted1||t.inverted2}},selectIntersect:function(t){return{segments:l.intersect(t.combined,u),inverted:t.inverted1&&t.inverted2}},selectDifference:function(t){return{segments:l.difference(t.combined,u),inverted:t.inverted1&&!t.inverted2}},selectDifferenceRev:function(t){return{segments:l.differenceRev(t.combined,u),inverted:!t.inverted1&&t.inverted2}},selectXor:function(t){return{segments:l.xor(t.combined,u),inverted:t.inverted1!==t.inverted2}},polygon:function(t){return{regions:s(t.segments,f,u),inverted:t.inverted}},polygonFromGeoJSON:function(t){return c.toPolygon(n,t)},polygonToGeoJSON:function(t){return c.fromPolygon(n,f,t)},union:function(t,e){return h(t,e,n.selectUnion)},intersect:function(t,e){return h(t,e,n.selectIntersect)},difference:function(t,e){return h(t,e,n.selectDifference)},differenceRev:function(t,e){return h(t,e,n.selectDifferenceRev)},xor:function(t,e){return h(t,e,n.selectXor)}},\\\"object\\\"==typeof window&&(window.PolyBool=n),e.exports=n},{\\\"./lib/build-log\\\":469,\\\"./lib/epsilon\\\":470,\\\"./lib/geojson\\\":471,\\\"./lib/intersecter\\\":472,\\\"./lib/segment-chainer\\\":474,\\\"./lib/segment-selector\\\":475}],469:[function(t,e,r){e.exports=function(){var t,e=0,r=!1;function n(e,r){return t.list.push({type:e,data:r?JSON.parse(JSON.stringify(r)):void 0}),t}return t={list:[],segmentId:function(){return e++},checkIntersection:function(t,e){return n(\\\"check\\\",{seg1:t,seg2:e})},segmentChop:function(t,e){return n(\\\"div_seg\\\",{seg:t,pt:e}),n(\\\"chop\\\",{seg:t,pt:e})},statusRemove:function(t){return n(\\\"pop_seg\\\",{seg:t})},segmentUpdate:function(t){return n(\\\"seg_update\\\",{seg:t})},segmentNew:function(t,e){return n(\\\"new_seg\\\",{seg:t,primary:e})},segmentRemove:function(t){return n(\\\"rem_seg\\\",{seg:t})},tempStatus:function(t,e,r){return n(\\\"temp_status\\\",{seg:t,above:e,below:r})},rewind:function(t){return n(\\\"rewind\\\",{seg:t})},status:function(t,e,r){return n(\\\"status\\\",{seg:t,above:e,below:r})},vert:function(e){return e===r?t:(r=e,n(\\\"vert\\\",{x:e}))},log:function(t){return\\\"string\\\"!=typeof t&&(t=JSON.stringify(t,!1,\\\"  \\\")),n(\\\"log\\\",{txt:t})},reset:function(){return n(\\\"reset\\\")},selected:function(t){return n(\\\"selected\\\",{segs:t})},chainStart:function(t){return n(\\\"chain_start\\\",{seg:t})},chainRemoveHead:function(t,e){return n(\\\"chain_rem_head\\\",{index:t,pt:e})},chainRemoveTail:function(t,e){return n(\\\"chain_rem_tail\\\",{index:t,pt:e})},chainNew:function(t,e){return n(\\\"chain_new\\\",{pt1:t,pt2:e})},chainMatch:function(t){return n(\\\"chain_match\\\",{index:t})},chainClose:function(t){return n(\\\"chain_close\\\",{index:t})},chainAddHead:function(t,e){return n(\\\"chain_add_head\\\",{index:t,pt:e})},chainAddTail:function(t,e){return n(\\\"chain_add_tail\\\",{index:t,pt:e})},chainConnect:function(t,e){return n(\\\"chain_con\\\",{index1:t,index2:e})},chainReverse:function(t){return n(\\\"chain_rev\\\",{index:t})},chainJoin:function(t,e){return n(\\\"chain_join\\\",{index1:t,index2:e})},done:function(){return n(\\\"done\\\")}}}},{}],470:[function(t,e,r){e.exports=function(t){\\\"number\\\"!=typeof t&&(t=1e-10);var e={epsilon:function(e){return\\\"number\\\"==typeof e&&(t=e),t},pointAboveOrOnLine:function(e,r,n){var i=r[0],a=r[1],o=n[0],s=n[1],l=e[0];return(o-i)*(e[1]-a)-(s-a)*(l-i)>=-t},pointBetween:function(e,r,n){var i=e[1]-r[1],a=n[0]-r[0],o=e[0]-r[0],s=n[1]-r[1],l=o*a+i*s;return!(l<t||l-(a*a+s*s)>-t)},pointsSameX:function(e,r){return Math.abs(e[0]-r[0])<t},pointsSameY:function(e,r){return Math.abs(e[1]-r[1])<t},pointsSame:function(t,r){return e.pointsSameX(t,r)&&e.pointsSameY(t,r)},pointsCompare:function(t,r){return e.pointsSameX(t,r)?e.pointsSameY(t,r)?0:t[1]<r[1]?-1:1:t[0]<r[0]?-1:1},pointsCollinear:function(e,r,n){var i=e[0]-r[0],a=e[1]-r[1],o=r[0]-n[0],s=r[1]-n[1];return Math.abs(i*s-o*a)<t},linesIntersect:function(e,r,n,i){var a=r[0]-e[0],o=r[1]-e[1],s=i[0]-n[0],l=i[1]-n[1],c=a*l-o*s;if(Math.abs(c)<t)return!1;var u=e[0]-n[0],f=e[1]-n[1],h=(s*f-l*u)/c,p=(a*f-o*u)/c,d={alongA:0,alongB:0,pt:[e[0]+h*a,e[1]+h*o]};return d.alongA=h<=-t?-2:h<t?-1:h-1<=-t?0:h-1<t?1:2,d.alongB=p<=-t?-2:p<t?-1:p-1<=-t?0:p-1<t?1:2,d},pointInsideRegion:function(e,r){for(var n=e[0],i=e[1],a=r[r.length-1][0],o=r[r.length-1][1],s=!1,l=0;l<r.length;l++){var c=r[l][0],u=r[l][1];u-i>t!=o-i>t&&(a-c)*(i-u)/(o-u)+c-n>t&&(s=!s),a=c,o=u}return s}};return e}},{}],471:[function(t,e,r){var n={toPolygon:function(t,e){function r(e){if(e.length<=0)return t.segments({inverted:!1,regions:[]});function r(e){var r=e.slice(0,e.length-1);return t.segments({inverted:!1,regions:[r]})}for(var n=r(e[0]),i=1;i<e.length;i++)n=t.selectDifference(t.combine(n,r(e[i])));return n}if(\\\"Polygon\\\"===e.type)return t.polygon(r(e.coordinates));if(\\\"MultiPolygon\\\"===e.type){for(var n=t.segments({inverted:!1,regions:[]}),i=0;i<e.coordinates.length;i++)n=t.selectUnion(t.combine(n,r(e.coordinates[i])));return t.polygon(n)}throw new Error(\\\"PolyBool: Cannot convert GeoJSON object to PolyBool polygon\\\")},fromPolygon:function(t,e,r){function n(t,r){return e.pointInsideRegion([.5*(t[0][0]+t[1][0]),.5*(t[0][1]+t[1][1])],r)}function i(t){return{region:t,children:[]}}r=t.polygon(t.segments(r));var a=i(null);function o(t,e){for(var r=0;r<t.children.length;r++){if(n(e,(s=t.children[r]).region))return void o(s,e)}var a=i(e);for(r=0;r<t.children.length;r++){var s;n((s=t.children[r]).region,e)&&(a.children.push(s),t.children.splice(r,1),r--)}t.children.push(a)}for(var s=0;s<r.regions.length;s++){var l=r.regions[s];l.length<3||o(a,l)}function c(t,e){for(var r=0,n=t[t.length-1][0],i=t[t.length-1][1],a=[],o=0;o<t.length;o++){var s=t[o][0],l=t[o][1];a.push([s,l]),r+=l*n-s*i,n=s,i=l}return r<0!==e&&a.reverse(),a.push([a[0][0],a[0][1]]),a}var u=[];function f(t){var e=[c(t.region,!1)];u.push(e);for(var r=0;r<t.children.length;r++)e.push(h(t.children[r]))}function h(t){for(var e=0;e<t.children.length;e++)f(t.children[e]);return c(t.region,!0)}for(s=0;s<a.children.length;s++)f(a.children[s]);return u.length<=0?{type:\\\"Polygon\\\",coordinates:[]}:1==u.length?{type:\\\"Polygon\\\",coordinates:u[0]}:{type:\\\"MultiPolygon\\\",coordinates:u}}};e.exports=n},{}],472:[function(t,e,r){var n=t(\\\"./linked-list\\\");e.exports=function(t,e,r){function i(t,e,n){return{id:r?r.segmentId():-1,start:t,end:e,myFill:{above:n.myFill.above,below:n.myFill.below},otherFill:null}}var a=n.create();function o(t,r){a.insertBefore(t,function(n){return function(t,r,n,i,a,o){var s=e.pointsCompare(r,a);return 0!==s?s:e.pointsSame(n,o)?0:t!==i?t?1:-1:e.pointAboveOrOnLine(n,i?a:o,i?o:a)?1:-1}(t.isStart,t.pt,r,n.isStart,n.pt,n.other.pt)<0})}function s(t,e){var r=function(t,e){var r=n.node({isStart:!0,pt:t.start,seg:t,primary:e,other:null,status:null});return o(r,t.end),r}(t,e);return function(t,e,r){var i=n.node({isStart:!1,pt:e.end,seg:e,primary:r,other:t,status:null});t.other=i,o(i,t.pt)}(r,t,e),r}function l(t,e){var n=i(e,t.seg.end,t.seg);return function(t,e){r&&r.segmentChop(t.seg,e),t.other.remove(),t.seg.end=e,t.other.pt=e,o(t.other,t.pt)}(t,e),s(n,t.primary)}function c(i,o){var s=n.create();function c(t){return s.findTransition(function(r){var n,i,a,o,s,l;return n=t,i=r.ev,a=n.seg.start,o=n.seg.end,s=i.seg.start,l=i.seg.end,(e.pointsCollinear(a,s,l)?e.pointsCollinear(o,s,l)?1:e.pointAboveOrOnLine(o,s,l)?1:-1:e.pointAboveOrOnLine(a,s,l)?1:-1)>0})}function u(t,n){var i=t.seg,a=n.seg,o=i.start,s=i.end,c=a.start,u=a.end;r&&r.checkIntersection(i,a);var f=e.linesIntersect(o,s,c,u);if(!1===f){if(!e.pointsCollinear(o,s,c))return!1;if(e.pointsSame(o,u)||e.pointsSame(s,c))return!1;var h=e.pointsSame(o,c),p=e.pointsSame(s,u);if(h&&p)return n;var d=!h&&e.pointBetween(o,c,u),g=!p&&e.pointBetween(s,c,u);if(h)return g?l(n,s):l(t,u),n;d&&(p||(g?l(n,s):l(t,u)),l(n,o))}else 0===f.alongA&&(-1===f.alongB?l(t,c):0===f.alongB?l(t,f.pt):1===f.alongB&&l(t,u)),0===f.alongB&&(-1===f.alongA?l(n,o):0===f.alongA?l(n,f.pt):1===f.alongA&&l(n,s));return!1}for(var f=[];!a.isEmpty();){var h=a.getHead();if(r&&r.vert(h.pt[0]),h.isStart){r&&r.segmentNew(h.seg,h.primary);var p=c(h),d=p.before?p.before.ev:null,g=p.after?p.after.ev:null;function v(){if(d){var t=u(h,d);if(t)return t}return!!g&&u(h,g)}r&&r.tempStatus(h.seg,!!d&&d.seg,!!g&&g.seg);var m,y,x=v();if(x)t?(y=null===h.seg.myFill.below||h.seg.myFill.above!==h.seg.myFill.below)&&(x.seg.myFill.above=!x.seg.myFill.above):x.seg.otherFill=h.seg.myFill,r&&r.segmentUpdate(x.seg),h.other.remove(),h.remove();if(a.getHead()!==h){r&&r.rewind(h.seg);continue}t?(y=null===h.seg.myFill.below||h.seg.myFill.above!==h.seg.myFill.below,h.seg.myFill.below=g?g.seg.myFill.above:i,h.seg.myFill.above=y?!h.seg.myFill.below:h.seg.myFill.below):null===h.seg.otherFill&&(m=g?h.primary===g.primary?g.seg.otherFill.above:g.seg.myFill.above:h.primary?o:i,h.seg.otherFill={above:m,below:m}),r&&r.status(h.seg,!!d&&d.seg,!!g&&g.seg),h.other.status=p.insert(n.node({ev:h}))}else{var b=h.status;if(null===b)throw new Error(\\\"PolyBool: Zero-length segment detected; your epsilon is probably too small or too large\\\");if(s.exists(b.prev)&&s.exists(b.next)&&u(b.prev.ev,b.next.ev),r&&r.statusRemove(b.ev.seg),b.remove(),!h.primary){var _=h.seg.myFill;h.seg.myFill=h.seg.otherFill,h.seg.otherFill=_}f.push(h.seg)}a.getHead().remove()}return r&&r.done(),f}return t?{addRegion:function(t){for(var n,i,a,o=t[t.length-1],l=0;l<t.length;l++){n=o,o=t[l];var c=e.pointsCompare(n,o);0!==c&&s((i=c<0?n:o,a=c<0?o:n,{id:r?r.segmentId():-1,start:i,end:a,myFill:{above:null,below:null},otherFill:null}),!0)}},calculate:function(t){return c(t,!1)}}:{calculate:function(t,e,r,n){return t.forEach(function(t){s(i(t.start,t.end,t),!0)}),r.forEach(function(t){s(i(t.start,t.end,t),!1)}),c(e,n)}}}},{\\\"./linked-list\\\":473}],473:[function(t,e,r){e.exports={create:function(){var t={root:{root:!0,next:null},exists:function(e){return null!==e&&e!==t.root},isEmpty:function(){return null===t.root.next},getHead:function(){return t.root.next},insertBefore:function(e,r){for(var n=t.root,i=t.root.next;null!==i;){if(r(i))return e.prev=i.prev,e.next=i,i.prev.next=e,void(i.prev=e);n=i,i=i.next}n.next=e,e.prev=n,e.next=null},findTransition:function(e){for(var r=t.root,n=t.root.next;null!==n&&!e(n);)r=n,n=n.next;return{before:r===t.root?null:r,after:n,insert:function(t){return t.prev=r,t.next=n,r.next=t,null!==n&&(n.prev=t),t}}}};return t},node:function(t){return t.prev=null,t.next=null,t.remove=function(){t.prev.next=t.next,t.next&&(t.next.prev=t.prev),t.prev=null,t.next=null},t}}},{}],474:[function(t,e,r){e.exports=function(t,e,r){var n=[],i=[];return t.forEach(function(t){var a=t.start,o=t.end;if(e.pointsSame(a,o))console.warn(\\\"PolyBool: Warning: Zero-length segment detected; your epsilon is probably too small or too large\\\");else{r&&r.chainStart(t);for(var s={index:0,matches_head:!1,matches_pt1:!1},l={index:0,matches_head:!1,matches_pt1:!1},c=s,u=0;u<n.length;u++){var f=(v=n[u])[0],h=(v[1],v[v.length-1]);if(v[v.length-2],e.pointsSame(f,a)){if(T(u,!0,!0))break}else if(e.pointsSame(f,o)){if(T(u,!0,!1))break}else if(e.pointsSame(h,a)){if(T(u,!1,!0))break}else if(e.pointsSame(h,o)&&T(u,!1,!1))break}if(c===s)return n.push([a,o]),void(r&&r.chainNew(a,o));if(c===l){r&&r.chainMatch(s.index);var p=s.index,d=s.matches_pt1?o:a,g=s.matches_head,v=n[p],m=g?v[0]:v[v.length-1],y=g?v[1]:v[v.length-2],x=g?v[v.length-1]:v[0],b=g?v[v.length-2]:v[1];return e.pointsCollinear(y,m,d)&&(g?(r&&r.chainRemoveHead(s.index,d),v.shift()):(r&&r.chainRemoveTail(s.index,d),v.pop()),m=y),e.pointsSame(x,d)?(n.splice(p,1),e.pointsCollinear(b,x,m)&&(g?(r&&r.chainRemoveTail(s.index,m),v.pop()):(r&&r.chainRemoveHead(s.index,m),v.shift())),r&&r.chainClose(s.index),void i.push(v)):void(g?(r&&r.chainAddHead(s.index,d),v.unshift(d)):(r&&r.chainAddTail(s.index,d),v.push(d)))}var _=s.index,w=l.index;r&&r.chainConnect(_,w);var k=n[_].length<n[w].length;s.matches_head?l.matches_head?k?(A(_),M(_,w)):(A(w),M(w,_)):M(w,_):l.matches_head?M(_,w):k?(A(_),M(w,_)):(A(w),M(_,w))}function T(t,e,r){return c.index=t,c.matches_head=e,c.matches_pt1=r,c===s?(c=l,!1):(c=null,!0)}function A(t){r&&r.chainReverse(t),n[t].reverse()}function M(t,i){var a=n[t],o=n[i],s=a[a.length-1],l=a[a.length-2],c=o[0],u=o[1];e.pointsCollinear(l,s,c)&&(r&&r.chainRemoveTail(t,s),a.pop(),s=l),e.pointsCollinear(s,c,u)&&(r&&r.chainRemoveHead(i,c),o.shift()),r&&r.chainJoin(t,i),n[t]=a.concat(o),n.splice(i,1)}}),i}},{}],475:[function(t,e,r){function n(t,e,r){var n=[];return t.forEach(function(t){var i=(t.myFill.above?8:0)+(t.myFill.below?4:0)+(t.otherFill&&t.otherFill.above?2:0)+(t.otherFill&&t.otherFill.below?1:0);0!==e[i]&&n.push({id:r?r.segmentId():-1,start:t.start,end:t.end,myFill:{above:1===e[i],below:2===e[i]},otherFill:null})}),r&&r.selected(n),n}var i={union:function(t,e){return n(t,[0,2,1,0,2,2,0,0,1,0,1,0,0,0,0,0],e)},intersect:function(t,e){return n(t,[0,0,0,0,0,2,0,2,0,0,1,1,0,2,1,0],e)},difference:function(t,e){return n(t,[0,0,0,0,2,0,2,0,1,1,0,0,0,1,2,0],e)},differenceRev:function(t,e){return n(t,[0,2,1,0,0,0,1,1,0,2,0,2,0,0,0,0],e)},xor:function(t,e){return n(t,[0,2,1,0,2,0,0,1,1,0,0,2,0,1,2,0],e)}};e.exports=i},{}],476:[function(t,e,r){\\\"use strict\\\";var n=new Float64Array(4),i=new Float64Array(4),a=new Float64Array(4);e.exports=function(t,e,r,o,s){n.length<o.length&&(n=new Float64Array(o.length),i=new Float64Array(o.length),a=new Float64Array(o.length));for(var l=0;l<o.length;++l)n[l]=t[l]-o[l],i[l]=e[l]-t[l],a[l]=r[l]-t[l];var c=0,u=0,f=0,h=0,p=0,d=0;for(l=0;l<o.length;++l){var g=i[l],v=a[l],m=n[l];c+=g*g,u+=g*v,f+=v*v,h+=m*g,p+=m*v,d+=m*m}var y,x,b,_,w,k=Math.abs(c*f-u*u),T=u*p-f*h,A=u*h-c*p;if(T+A<=k)if(T<0)A<0&&h<0?(A=0,-h>=c?(T=1,y=c+2*h+d):y=h*(T=-h/c)+d):(T=0,p>=0?(A=0,y=d):-p>=f?(A=1,y=f+2*p+d):y=p*(A=-p/f)+d);else if(A<0)A=0,h>=0?(T=0,y=d):-h>=c?(T=1,y=c+2*h+d):y=h*(T=-h/c)+d;else{var M=1/k;y=(T*=M)*(c*T+u*(A*=M)+2*h)+A*(u*T+f*A+2*p)+d}else T<0?(b=f+p)>(x=u+h)?(_=b-x)>=(w=c-2*u+f)?(T=1,A=0,y=c+2*h+d):y=(T=_/w)*(c*T+u*(A=1-T)+2*h)+A*(u*T+f*A+2*p)+d:(T=0,b<=0?(A=1,y=f+2*p+d):p>=0?(A=0,y=d):y=p*(A=-p/f)+d):A<0?(b=c+h)>(x=u+p)?(_=b-x)>=(w=c-2*u+f)?(A=1,T=0,y=f+2*p+d):y=(T=1-(A=_/w))*(c*T+u*A+2*h)+A*(u*T+f*A+2*p)+d:(A=0,b<=0?(T=1,y=c+2*h+d):h>=0?(T=0,y=d):y=h*(T=-h/c)+d):(_=f+p-u-h)<=0?(T=0,A=1,y=f+2*p+d):_>=(w=c-2*u+f)?(T=1,A=0,y=c+2*h+d):y=(T=_/w)*(c*T+u*(A=1-T)+2*h)+A*(u*T+f*A+2*p)+d;var S=1-T-A;for(l=0;l<o.length;++l)s[l]=S*t[l]+T*e[l]+A*r[l];return y<0?0:y}},{}],477:[function(t,e,r){var n,i,a=e.exports={};function o(){throw new Error(\\\"setTimeout has not been defined\\\")}function s(){throw new Error(\\\"clearTimeout has not been defined\\\")}function l(t){if(n===setTimeout)return setTimeout(t,0);if((n===o||!n)&&setTimeout)return n=setTimeout,setTimeout(t,0);try{return n(t,0)}catch(e){try{return n.call(null,t,0)}catch(e){return n.call(this,t,0)}}}!function(){try{n=\\\"function\\\"==typeof setTimeout?setTimeout:o}catch(t){n=o}try{i=\\\"function\\\"==typeof clearTimeout?clearTimeout:s}catch(t){i=s}}();var c,u=[],f=!1,h=-1;function p(){f&&c&&(f=!1,c.length?u=c.concat(u):h=-1,u.length&&d())}function d(){if(!f){var t=l(p);f=!0;for(var e=u.length;e;){for(c=u,u=[];++h<e;)c&&c[h].run();h=-1,e=u.length}c=null,f=!1,function(t){if(i===clearTimeout)return clearTimeout(t);if((i===s||!i)&&clearTimeout)return i=clearTimeout,clearTimeout(t);try{i(t)}catch(e){try{return i.call(null,t)}catch(e){return i.call(this,t)}}}(t)}}function g(t,e){this.fun=t,this.array=e}function v(){}a.nextTick=function(t){var e=new Array(arguments.length-1);if(arguments.length>1)for(var r=1;r<arguments.length;r++)e[r-1]=arguments[r];u.push(new g(t,e)),1!==u.length||f||l(d)},g.prototype.run=function(){this.fun.apply(null,this.array)},a.title=\\\"browser\\\",a.browser=!0,a.env={},a.argv=[],a.version=\\\"\\\",a.versions={},a.on=v,a.addListener=v,a.once=v,a.off=v,a.removeListener=v,a.removeAllListeners=v,a.emit=v,a.prependListener=v,a.prependOnceListener=v,a.listeners=function(t){return[]},a.binding=function(t){throw new Error(\\\"process.binding is not supported\\\")},a.cwd=function(){return\\\"/\\\"},a.chdir=function(t){throw new Error(\\\"process.chdir is not supported\\\")},a.umask=function(){return 0}},{}],478:[function(t,e,r){e.exports=t(\\\"gl-quat/slerp\\\")},{\\\"gl-quat/slerp\\\":292}],479:[function(t,e,r){(function(r){for(var n=t(\\\"performance-now\\\"),i=\\\"undefined\\\"==typeof window?r:window,a=[\\\"moz\\\",\\\"webkit\\\"],o=\\\"AnimationFrame\\\",s=i[\\\"request\\\"+o],l=i[\\\"cancel\\\"+o]||i[\\\"cancelRequest\\\"+o],c=0;!s&&c<a.length;c++)s=i[a[c]+\\\"Request\\\"+o],l=i[a[c]+\\\"Cancel\\\"+o]||i[a[c]+\\\"CancelRequest\\\"+o];if(!s||!l){var u=0,f=0,h=[];s=function(t){if(0===h.length){var e=n(),r=Math.max(0,1e3/60-(e-u));u=r+e,setTimeout(function(){var t=h.slice(0);h.length=0;for(var e=0;e<t.length;e++)if(!t[e].cancelled)try{t[e].callback(u)}catch(t){setTimeout(function(){throw t},0)}},Math.round(r))}return h.push({handle:++f,callback:t,cancelled:!1}),f},l=function(t){for(var e=0;e<h.length;e++)h[e].handle===t&&(h[e].cancelled=!0)}}e.exports=function(t){return s.call(i,t)},e.exports.cancel=function(){l.apply(i,arguments)},e.exports.polyfill=function(t){t||(t=i),t.requestAnimationFrame=s,t.cancelAnimationFrame=l}}).call(this,\\\"undefined\\\"!=typeof global?global:\\\"undefined\\\"!=typeof self?self:\\\"undefined\\\"!=typeof window?window:{})},{\\\"performance-now\\\":457}],480:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"big-rat/add\\\");e.exports=function(t,e){for(var r=t.length,i=new Array(r),a=0;a<r;++a)i[a]=n(t[a],e[a]);return i}},{\\\"big-rat/add\\\":68}],481:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){for(var e=new Array(t.length),r=0;r<t.length;++r)e[r]=n(t[r]);return e};var n=t(\\\"big-rat\\\")},{\\\"big-rat\\\":71}],482:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"big-rat\\\"),i=t(\\\"big-rat/mul\\\");e.exports=function(t,e){for(var r=n(e),a=t.length,o=new Array(a),s=0;s<a;++s)o[s]=i(t[s],r);return o}},{\\\"big-rat\\\":71,\\\"big-rat/mul\\\":80}],483:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"big-rat/sub\\\");e.exports=function(t,e){for(var r=t.length,i=new Array(r),a=0;a<r;++a)i[a]=n(t[a],e[a]);return i}},{\\\"big-rat/sub\\\":82}],484:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"compare-cell\\\"),i=t(\\\"compare-oriented-cell\\\"),a=t(\\\"cell-orientation\\\");e.exports=function(t){t.sort(i);for(var e=t.length,r=0,o=0;o<e;++o){var s=t[o],l=a(s);if(0!==l){if(r>0){var c=t[r-1];if(0===n(s,c)&&a(c)!==l){r-=1;continue}}t[r++]=s}}return t.length=r,t}},{\\\"cell-orientation\\\":105,\\\"compare-cell\\\":121,\\\"compare-oriented-cell\\\":122}],485:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"array-bounds\\\"),i=t(\\\"color-normalize\\\"),a=t(\\\"update-diff\\\"),o=t(\\\"pick-by-alias\\\"),s=t(\\\"object-assign\\\"),l=t(\\\"flatten-vertex-data\\\"),c=t(\\\"to-float32\\\"),u=c.float32,f=c.fract32;e.exports=function(t,e){\\\"function\\\"==typeof t?(e||(e={}),e.regl=t):e=t;e.length&&(e.positions=e);if(!(t=e.regl).hasExtension(\\\"ANGLE_instanced_arrays\\\"))throw Error(\\\"regl-error2d: `ANGLE_instanced_arrays` extension should be enabled\\\");var r,c,p,d,g,v,m=t._gl,y={color:\\\"black\\\",capSize:5,lineWidth:1,opacity:1,viewport:null,range:null,offset:0,count:0,bounds:null,positions:[],errors:[]},x=[];return d=t.buffer({usage:\\\"dynamic\\\",type:\\\"uint8\\\",data:new Uint8Array(0)}),c=t.buffer({usage:\\\"dynamic\\\",type:\\\"float\\\",data:new Uint8Array(0)}),p=t.buffer({usage:\\\"dynamic\\\",type:\\\"float\\\",data:new Uint8Array(0)}),g=t.buffer({usage:\\\"dynamic\\\",type:\\\"float\\\",data:new Uint8Array(0)}),v=t.buffer({usage:\\\"static\\\",type:\\\"float\\\",data:h}),k(e),r=t({vert:\\\"\\\\n\\\\t\\\\tprecision highp float;\\\\n\\\\n\\\\t\\\\tattribute vec2 position, positionFract;\\\\n\\\\t\\\\tattribute vec4 error;\\\\n\\\\t\\\\tattribute vec4 color;\\\\n\\\\n\\\\t\\\\tattribute vec2 direction, lineOffset, capOffset;\\\\n\\\\n\\\\t\\\\tuniform vec4 viewport;\\\\n\\\\t\\\\tuniform float lineWidth, capSize;\\\\n\\\\t\\\\tuniform vec2 scale, scaleFract, translate, translateFract;\\\\n\\\\n\\\\t\\\\tvarying vec4 fragColor;\\\\n\\\\n\\\\t\\\\tvoid main() {\\\\n\\\\t\\\\t\\\\tfragColor = color / 255.;\\\\n\\\\n\\\\t\\\\t\\\\tvec2 pixelOffset = lineWidth * lineOffset + (capSize + lineWidth) * capOffset;\\\\n\\\\n\\\\t\\\\t\\\\tvec2 dxy = -step(.5, direction.xy) * error.xz + step(direction.xy, vec2(-.5)) * error.yw;\\\\n\\\\n\\\\t\\\\t\\\\tvec2 position = position + dxy;\\\\n\\\\n\\\\t\\\\t\\\\tvec2 pos = (position + translate) * scale\\\\n\\\\t\\\\t\\\\t\\\\t+ (positionFract + translateFract) * scale\\\\n\\\\t\\\\t\\\\t\\\\t+ (position + translate) * scaleFract\\\\n\\\\t\\\\t\\\\t\\\\t+ (positionFract + translateFract) * scaleFract;\\\\n\\\\n\\\\t\\\\t\\\\tpos += pixelOffset / viewport.zw;\\\\n\\\\n\\\\t\\\\t\\\\tgl_Position = vec4(pos * 2. - 1., 0, 1);\\\\n\\\\t\\\\t}\\\\n\\\\t\\\\t\\\",frag:\\\"\\\\n\\\\t\\\\tprecision highp float;\\\\n\\\\n\\\\t\\\\tvarying vec4 fragColor;\\\\n\\\\n\\\\t\\\\tuniform float opacity;\\\\n\\\\n\\\\t\\\\tvoid main() {\\\\n\\\\t\\\\t\\\\tgl_FragColor = fragColor;\\\\n\\\\t\\\\t\\\\tgl_FragColor.a *= opacity;\\\\n\\\\t\\\\t}\\\\n\\\\t\\\\t\\\",uniforms:{range:t.prop(\\\"range\\\"),lineWidth:t.prop(\\\"lineWidth\\\"),capSize:t.prop(\\\"capSize\\\"),opacity:t.prop(\\\"opacity\\\"),scale:t.prop(\\\"scale\\\"),translate:t.prop(\\\"translate\\\"),scaleFract:t.prop(\\\"scaleFract\\\"),translateFract:t.prop(\\\"translateFract\\\"),viewport:function(t,e){return[e.viewport.x,e.viewport.y,t.viewportWidth,t.viewportHeight]}},attributes:{color:{buffer:d,offset:function(t,e){return 4*e.offset},divisor:1},position:{buffer:c,offset:function(t,e){return 8*e.offset},divisor:1},positionFract:{buffer:p,offset:function(t,e){return 8*e.offset},divisor:1},error:{buffer:g,offset:function(t,e){return 16*e.offset},divisor:1},direction:{buffer:v,stride:24,offset:0},lineOffset:{buffer:v,stride:24,offset:8},capOffset:{buffer:v,stride:24,offset:16}},primitive:\\\"triangles\\\",blend:{enable:!0,color:[0,0,0,0],equation:{rgb:\\\"add\\\",alpha:\\\"add\\\"},func:{srcRGB:\\\"src alpha\\\",dstRGB:\\\"one minus src alpha\\\",srcAlpha:\\\"one minus dst alpha\\\",dstAlpha:\\\"one\\\"}},depth:{enable:!1},scissor:{enable:!0,box:t.prop(\\\"viewport\\\")},viewport:t.prop(\\\"viewport\\\"),stencil:!1,instances:t.prop(\\\"count\\\"),count:h.length}),s(b,{update:k,draw:_,destroy:T,regl:t,gl:m,canvas:m.canvas,groups:x}),b;function b(t){t?k(t):null===t&&T(),_()}function _(e){if(\\\"number\\\"==typeof e)return w(e);e&&!Array.isArray(e)&&(e=[e]),t._refresh(),x.forEach(function(t,r){t&&(e&&(e[r]?t.draw=!0:t.draw=!1),t.draw?w(r):t.draw=!0)})}function w(t){\\\"number\\\"==typeof t&&(t=x[t]),null!=t&&t&&t.count&&t.color&&t.opacity&&t.positions&&t.positions.length>1&&(t.scaleRatio=[t.scale[0]*t.viewport.width,t.scale[1]*t.viewport.height],r(t),t.after&&t.after(t))}function k(t){if(t){null!=t.length?\\\"number\\\"==typeof t[0]&&(t=[{positions:t}]):Array.isArray(t)||(t=[t]);var e=0,r=0;if(b.groups=x=t.map(function(t,c){var u=x[c];return t?(\\\"function\\\"==typeof t?t={after:t}:\\\"number\\\"==typeof t[0]&&(t={positions:t}),t=o(t,{color:\\\"color colors fill\\\",capSize:\\\"capSize cap capsize cap-size\\\",lineWidth:\\\"lineWidth line-width width line thickness\\\",opacity:\\\"opacity alpha\\\",range:\\\"range dataBox\\\",viewport:\\\"viewport viewBox\\\",errors:\\\"errors error\\\",positions:\\\"positions position data points\\\"}),u||(x[c]=u={id:c,scale:null,translate:null,scaleFract:null,translateFract:null,draw:!0},t=s({},y,t)),a(u,t,[{lineWidth:function(t){return.5*+t},capSize:function(t){return.5*+t},opacity:parseFloat,errors:function(t){return t=l(t),r+=t.length,t},positions:function(t,r){return t=l(t,\\\"float64\\\"),r.count=Math.floor(t.length/2),r.bounds=n(t,2),r.offset=e,e+=r.count,t}},{color:function(t,e){var r=e.count;if(t||(t=\\\"transparent\\\"),!Array.isArray(t)||\\\"number\\\"==typeof t[0]){var n=t;t=Array(r);for(var a=0;a<r;a++)t[a]=n}if(t.length<r)throw Error(\\\"Not enough colors\\\");for(var o=new Uint8Array(4*r),s=0;s<r;s++){var l=i(t[s],\\\"uint8\\\");o.set(l,4*s)}return o},range:function(t,e,r){var n=e.bounds;return t||(t=n),e.scale=[1/(t[2]-t[0]),1/(t[3]-t[1])],e.translate=[-t[0],-t[1]],e.scaleFract=f(e.scale),e.translateFract=f(e.translate),t},viewport:function(t){var e;return Array.isArray(t)?e={x:t[0],y:t[1],width:t[2]-t[0],height:t[3]-t[1]}:t?(e={x:t.x||t.left||0,y:t.y||t.top||0},t.right?e.width=t.right-e.x:e.width=t.w||t.width||0,t.bottom?e.height=t.bottom-e.y:e.height=t.h||t.height||0):e={x:0,y:0,width:m.drawingBufferWidth,height:m.drawingBufferHeight},e}}]),u):u}),e||r){var h=x.reduce(function(t,e,r){return t+(e?e.count:0)},0),v=new Float64Array(2*h),_=new Uint8Array(4*h),w=new Float32Array(4*h);x.forEach(function(t,e){if(t){var r=t.positions,n=t.count,i=t.offset,a=t.color,o=t.errors;n&&(_.set(a,4*i),w.set(o,4*i),v.set(r,2*i))}}),c(u(v)),p(f(v)),d(_),g(w)}}}function T(){c.destroy(),p.destroy(),d.destroy(),g.destroy(),v.destroy()}};var h=[[1,0,0,1,0,0],[1,0,0,-1,0,0],[-1,0,0,-1,0,0],[-1,0,0,-1,0,0],[-1,0,0,1,0,0],[1,0,0,1,0,0],[1,0,-1,0,0,1],[1,0,-1,0,0,-1],[1,0,1,0,0,-1],[1,0,1,0,0,-1],[1,0,1,0,0,1],[1,0,-1,0,0,1],[-1,0,-1,0,0,1],[-1,0,-1,0,0,-1],[-1,0,1,0,0,-1],[-1,0,1,0,0,-1],[-1,0,1,0,0,1],[-1,0,-1,0,0,1],[0,1,1,0,0,0],[0,1,-1,0,0,0],[0,-1,-1,0,0,0],[0,-1,-1,0,0,0],[0,1,1,0,0,0],[0,-1,1,0,0,0],[0,1,0,-1,1,0],[0,1,0,-1,-1,0],[0,1,0,1,-1,0],[0,1,0,1,1,0],[0,1,0,-1,1,0],[0,1,0,1,-1,0],[0,-1,0,-1,1,0],[0,-1,0,-1,-1,0],[0,-1,0,1,-1,0],[0,-1,0,1,1,0],[0,-1,0,-1,1,0],[0,-1,0,1,-1,0]]},{\\\"array-bounds\\\":58,\\\"color-normalize\\\":113,\\\"flatten-vertex-data\\\":226,\\\"object-assign\\\":449,\\\"pick-by-alias\\\":460,\\\"to-float32\\\":525,\\\"update-diff\\\":536}],486:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"color-normalize\\\"),i=t(\\\"array-bounds\\\"),a=t(\\\"object-assign\\\"),o=t(\\\"glslify\\\"),s=t(\\\"pick-by-alias\\\"),l=t(\\\"flatten-vertex-data\\\"),c=t(\\\"earcut\\\"),u=t(\\\"array-normalize\\\"),f=t(\\\"to-float32\\\"),h=f.float32,p=f.fract32,d=t(\\\"es6-weak-map\\\"),g=t(\\\"parse-rect\\\");function v(t,e){if(!(this instanceof v))return new v(t,e);if(\\\"function\\\"==typeof t?(e||(e={}),e.regl=t):e=t,e.length&&(e.positions=e),!(t=e.regl).hasExtension(\\\"ANGLE_instanced_arrays\\\"))throw Error(\\\"regl-error2d: `ANGLE_instanced_arrays` extension should be enabled\\\");this.gl=t._gl,this.regl=t,this.passes=[],this.shaders=v.shaders.has(t)?v.shaders.get(t):v.shaders.set(t,v.createShaders(t)).get(t),this.update(e)}e.exports=v,v.dashMult=2,v.maxPatternLength=256,v.precisionThreshold=3e6,v.maxPoints=1e4,v.maxLines=2048,v.shaders=new d,v.createShaders=function(t){var e,r=t.buffer({usage:\\\"static\\\",type:\\\"float\\\",data:[0,1,0,0,1,1,1,0]}),n={primitive:\\\"triangle strip\\\",instances:t.prop(\\\"count\\\"),count:4,offset:0,uniforms:{miterMode:function(t,e){return\\\"round\\\"===e.join?2:1},miterLimit:t.prop(\\\"miterLimit\\\"),scale:t.prop(\\\"scale\\\"),scaleFract:t.prop(\\\"scaleFract\\\"),translateFract:t.prop(\\\"translateFract\\\"),translate:t.prop(\\\"translate\\\"),thickness:t.prop(\\\"thickness\\\"),dashPattern:t.prop(\\\"dashTexture\\\"),opacity:t.prop(\\\"opacity\\\"),pixelRatio:t.context(\\\"pixelRatio\\\"),id:t.prop(\\\"id\\\"),dashSize:t.prop(\\\"dashLength\\\"),viewport:function(t,e){return[e.viewport.x,e.viewport.y,t.viewportWidth,t.viewportHeight]},depth:t.prop(\\\"depth\\\")},blend:{enable:!0,color:[0,0,0,0],equation:{rgb:\\\"add\\\",alpha:\\\"add\\\"},func:{srcRGB:\\\"src alpha\\\",dstRGB:\\\"one minus src alpha\\\",srcAlpha:\\\"one minus dst alpha\\\",dstAlpha:\\\"one\\\"}},depth:{enable:function(t,e){return!e.overlay}},stencil:{enable:!1},scissor:{enable:!0,box:t.prop(\\\"viewport\\\")},viewport:t.prop(\\\"viewport\\\")},i=t(a({vert:o([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec2 aCoord, bCoord, aCoordFract, bCoordFract;\\\\nattribute vec4 color;\\\\nattribute float lineEnd, lineTop;\\\\n\\\\nuniform vec2 scale, scaleFract, translate, translateFract;\\\\nuniform float thickness, pixelRatio, id, depth;\\\\nuniform vec4 viewport;\\\\n\\\\nvarying vec4 fragColor;\\\\nvarying vec2 tangent;\\\\n\\\\nvec2 project(vec2 position, vec2 positionFract, vec2 scale, vec2 scaleFract, vec2 translate, vec2 translateFract) {\\\\n\\\\t// the order is important\\\\n\\\\treturn position * scale + translate\\\\n       + positionFract * scale + translateFract\\\\n       + position * scaleFract\\\\n       + positionFract * scaleFract;\\\\n}\\\\n\\\\nvoid main() {\\\\n\\\\tfloat lineStart = 1. - lineEnd;\\\\n\\\\tfloat lineOffset = lineTop * 2. - 1.;\\\\n\\\\n\\\\tvec2 diff = (bCoord + bCoordFract - aCoord - aCoordFract);\\\\n\\\\ttangent = normalize(diff * scale * viewport.zw);\\\\n\\\\tvec2 normal = vec2(-tangent.y, tangent.x);\\\\n\\\\n\\\\tvec2 position = project(aCoord, aCoordFract, scale, scaleFract, translate, translateFract) * lineStart\\\\n\\\\t\\\\t+ project(bCoord, bCoordFract, scale, scaleFract, translate, translateFract) * lineEnd\\\\n\\\\n\\\\t\\\\t+ thickness * normal * .5 * lineOffset / viewport.zw;\\\\n\\\\n\\\\tgl_Position = vec4(position * 2.0 - 1.0, depth, 1);\\\\n\\\\n\\\\tfragColor = color / 255.;\\\\n}\\\\n\\\"]),frag:o([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nuniform sampler2D dashPattern;\\\\n\\\\nuniform float dashSize, pixelRatio, thickness, opacity, id;\\\\n\\\\nvarying vec4 fragColor;\\\\nvarying vec2 tangent;\\\\n\\\\nvoid main() {\\\\n\\\\tfloat alpha = 1.;\\\\n\\\\n\\\\tfloat t = fract(dot(tangent, gl_FragCoord.xy) / dashSize) * .5 + .25;\\\\n\\\\tfloat dash = texture2D(dashPattern, vec2(t, .5)).r;\\\\n\\\\n\\\\tgl_FragColor = fragColor;\\\\n\\\\tgl_FragColor.a *= alpha * opacity * dash;\\\\n}\\\\n\\\"]),attributes:{lineEnd:{buffer:r,divisor:0,stride:8,offset:0},lineTop:{buffer:r,divisor:0,stride:8,offset:4},aCoord:{buffer:t.prop(\\\"positionBuffer\\\"),stride:8,offset:8,divisor:1},bCoord:{buffer:t.prop(\\\"positionBuffer\\\"),stride:8,offset:16,divisor:1},aCoordFract:{buffer:t.prop(\\\"positionFractBuffer\\\"),stride:8,offset:8,divisor:1},bCoordFract:{buffer:t.prop(\\\"positionFractBuffer\\\"),stride:8,offset:16,divisor:1},color:{buffer:t.prop(\\\"colorBuffer\\\"),stride:4,offset:0,divisor:1}}},n));try{e=t(a({cull:{enable:!0,face:\\\"back\\\"},vert:o([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec2 aCoord, bCoord, nextCoord, prevCoord;\\\\nattribute vec4 aColor, bColor;\\\\nattribute float lineEnd, lineTop;\\\\n\\\\nuniform vec2 scale, translate;\\\\nuniform float thickness, pixelRatio, id, depth;\\\\nuniform vec4 viewport;\\\\nuniform float miterLimit, miterMode;\\\\n\\\\nvarying vec4 fragColor;\\\\nvarying vec4 startCutoff, endCutoff;\\\\nvarying vec2 tangent;\\\\nvarying vec2 startCoord, endCoord;\\\\nvarying float enableStartMiter, enableEndMiter;\\\\n\\\\nconst float REVERSE_THRESHOLD = -.875;\\\\nconst float MIN_DIFF = 1e-6;\\\\n\\\\n// TODO: possible optimizations: avoid overcalculating all for vertices and calc just one instead\\\\n// TODO: precalculate dot products, normalize things beforehead etc.\\\\n// TODO: refactor to rectangular algorithm\\\\n\\\\nfloat distToLine(vec2 p, vec2 a, vec2 b) {\\\\n\\\\tvec2 diff = b - a;\\\\n\\\\tvec2 perp = normalize(vec2(-diff.y, diff.x));\\\\n\\\\treturn dot(p - a, perp);\\\\n}\\\\n\\\\nbool isNaN( float val ){\\\\n  return ( val < 0.0 || 0.0 < val || val == 0.0 ) ? false : true;\\\\n}\\\\n\\\\nvoid main() {\\\\n\\\\tvec2 aCoord = aCoord, bCoord = bCoord, prevCoord = prevCoord, nextCoord = nextCoord;\\\\n\\\\n  vec2 adjustedScale;\\\\n  adjustedScale.x = (abs(scale.x) < MIN_DIFF) ? MIN_DIFF : scale.x;\\\\n  adjustedScale.y = (abs(scale.y) < MIN_DIFF) ? MIN_DIFF : scale.y;\\\\n\\\\n  vec2 scaleRatio = adjustedScale * viewport.zw;\\\\n\\\\tvec2 normalWidth = thickness / scaleRatio;\\\\n\\\\n\\\\tfloat lineStart = 1. - lineEnd;\\\\n\\\\tfloat lineBot = 1. - lineTop;\\\\n\\\\n\\\\tfragColor = (lineStart * aColor + lineEnd * bColor) / 255.;\\\\n\\\\n\\\\tif (isNaN(aCoord.x) || isNaN(aCoord.y) || isNaN(bCoord.x) || isNaN(bCoord.y)) return;\\\\n\\\\n\\\\tif (aCoord == prevCoord) prevCoord = aCoord + normalize(bCoord - aCoord);\\\\n\\\\tif (bCoord == nextCoord) nextCoord = bCoord - normalize(bCoord - aCoord);\\\\n\\\\n\\\\tvec2 prevDiff = aCoord - prevCoord;\\\\n\\\\tvec2 currDiff = bCoord - aCoord;\\\\n\\\\tvec2 nextDiff = nextCoord - bCoord;\\\\n\\\\n\\\\tvec2 prevTangent = normalize(prevDiff * scaleRatio);\\\\n\\\\tvec2 currTangent = normalize(currDiff * scaleRatio);\\\\n\\\\tvec2 nextTangent = normalize(nextDiff * scaleRatio);\\\\n\\\\n\\\\tvec2 prevNormal = vec2(-prevTangent.y, prevTangent.x);\\\\n\\\\tvec2 currNormal = vec2(-currTangent.y, currTangent.x);\\\\n\\\\tvec2 nextNormal = vec2(-nextTangent.y, nextTangent.x);\\\\n\\\\n\\\\tvec2 startJoinDirection = normalize(prevTangent - currTangent);\\\\n\\\\tvec2 endJoinDirection = normalize(currTangent - nextTangent);\\\\n\\\\n\\\\t// collapsed/unidirectional segment cases\\\\n\\\\t// FIXME: there should be more elegant solution\\\\n\\\\tvec2 prevTanDiff = abs(prevTangent - currTangent);\\\\n\\\\tvec2 nextTanDiff = abs(nextTangent - currTangent);\\\\n\\\\tif (max(prevTanDiff.x, prevTanDiff.y) < MIN_DIFF) {\\\\n\\\\t\\\\tstartJoinDirection = currNormal;\\\\n\\\\t}\\\\n\\\\tif (max(nextTanDiff.x, nextTanDiff.y) < MIN_DIFF) {\\\\n\\\\t\\\\tendJoinDirection = currNormal;\\\\n\\\\t}\\\\n\\\\tif (aCoord == bCoord) {\\\\n\\\\t\\\\tendJoinDirection = startJoinDirection;\\\\n\\\\t\\\\tcurrNormal = prevNormal;\\\\n\\\\t\\\\tcurrTangent = prevTangent;\\\\n\\\\t}\\\\n\\\\n\\\\ttangent = currTangent;\\\\n\\\\n\\\\t//calculate join shifts relative to normals\\\\n\\\\tfloat startJoinShift = dot(currNormal, startJoinDirection);\\\\n\\\\tfloat endJoinShift = dot(currNormal, endJoinDirection);\\\\n\\\\n\\\\tfloat startMiterRatio = abs(1. / startJoinShift);\\\\n\\\\tfloat endMiterRatio = abs(1. / endJoinShift);\\\\n\\\\n\\\\tvec2 startJoin = startJoinDirection * startMiterRatio;\\\\n\\\\tvec2 endJoin = endJoinDirection * endMiterRatio;\\\\n\\\\n\\\\tvec2 startTopJoin, startBotJoin, endTopJoin, endBotJoin;\\\\n\\\\tstartTopJoin = sign(startJoinShift) * startJoin * .5;\\\\n\\\\tstartBotJoin = -startTopJoin;\\\\n\\\\n\\\\tendTopJoin = sign(endJoinShift) * endJoin * .5;\\\\n\\\\tendBotJoin = -endTopJoin;\\\\n\\\\n\\\\tvec2 aTopCoord = aCoord + normalWidth * startTopJoin;\\\\n\\\\tvec2 bTopCoord = bCoord + normalWidth * endTopJoin;\\\\n\\\\tvec2 aBotCoord = aCoord + normalWidth * startBotJoin;\\\\n\\\\tvec2 bBotCoord = bCoord + normalWidth * endBotJoin;\\\\n\\\\n\\\\t//miter anti-clipping\\\\n\\\\tfloat baClipping = distToLine(bCoord, aCoord, aBotCoord) / dot(normalize(normalWidth * endBotJoin), normalize(normalWidth.yx * vec2(-startBotJoin.y, startBotJoin.x)));\\\\n\\\\tfloat abClipping = distToLine(aCoord, bCoord, bTopCoord) / dot(normalize(normalWidth * startBotJoin), normalize(normalWidth.yx * vec2(-endBotJoin.y, endBotJoin.x)));\\\\n\\\\n\\\\t//prevent close to reverse direction switch\\\\n\\\\tbool prevReverse = dot(currTangent, prevTangent) <= REVERSE_THRESHOLD && abs(dot(currTangent, prevNormal)) * min(length(prevDiff), length(currDiff)) <  length(normalWidth * currNormal);\\\\n\\\\tbool nextReverse = dot(currTangent, nextTangent) <= REVERSE_THRESHOLD && abs(dot(currTangent, nextNormal)) * min(length(nextDiff), length(currDiff)) <  length(normalWidth * currNormal);\\\\n\\\\n\\\\tif (prevReverse) {\\\\n\\\\t\\\\t//make join rectangular\\\\n\\\\t\\\\tvec2 miterShift = normalWidth * startJoinDirection * miterLimit * .5;\\\\n\\\\t\\\\tfloat normalAdjust = 1. - min(miterLimit / startMiterRatio, 1.);\\\\n\\\\t\\\\taBotCoord = aCoord + miterShift - normalAdjust * normalWidth * currNormal * .5;\\\\n\\\\t\\\\taTopCoord = aCoord + miterShift + normalAdjust * normalWidth * currNormal * .5;\\\\n\\\\t}\\\\n\\\\telse if (!nextReverse && baClipping > 0. && baClipping < length(normalWidth * endBotJoin)) {\\\\n\\\\t\\\\t//handle miter clipping\\\\n\\\\t\\\\tbTopCoord -= normalWidth * endTopJoin;\\\\n\\\\t\\\\tbTopCoord += normalize(endTopJoin * normalWidth) * baClipping;\\\\n\\\\t}\\\\n\\\\n\\\\tif (nextReverse) {\\\\n\\\\t\\\\t//make join rectangular\\\\n\\\\t\\\\tvec2 miterShift = normalWidth * endJoinDirection * miterLimit * .5;\\\\n\\\\t\\\\tfloat normalAdjust = 1. - min(miterLimit / endMiterRatio, 1.);\\\\n\\\\t\\\\tbBotCoord = bCoord + miterShift - normalAdjust * normalWidth * currNormal * .5;\\\\n\\\\t\\\\tbTopCoord = bCoord + miterShift + normalAdjust * normalWidth * currNormal * .5;\\\\n\\\\t}\\\\n\\\\telse if (!prevReverse && abClipping > 0. && abClipping < length(normalWidth * startBotJoin)) {\\\\n\\\\t\\\\t//handle miter clipping\\\\n\\\\t\\\\taBotCoord -= normalWidth * startBotJoin;\\\\n\\\\t\\\\taBotCoord += normalize(startBotJoin * normalWidth) * abClipping;\\\\n\\\\t}\\\\n\\\\n\\\\tvec2 aTopPosition = (aTopCoord) * adjustedScale + translate;\\\\n\\\\tvec2 aBotPosition = (aBotCoord) * adjustedScale + translate;\\\\n\\\\n\\\\tvec2 bTopPosition = (bTopCoord) * adjustedScale + translate;\\\\n\\\\tvec2 bBotPosition = (bBotCoord) * adjustedScale + translate;\\\\n\\\\n\\\\t//position is normalized 0..1 coord on the screen\\\\n\\\\tvec2 position = (aTopPosition * lineTop + aBotPosition * lineBot) * lineStart + (bTopPosition * lineTop + bBotPosition * lineBot) * lineEnd;\\\\n\\\\n\\\\tstartCoord = aCoord * scaleRatio + translate * viewport.zw + viewport.xy;\\\\n\\\\tendCoord = bCoord * scaleRatio + translate * viewport.zw + viewport.xy;\\\\n\\\\n\\\\tgl_Position = vec4(position  * 2.0 - 1.0, depth, 1);\\\\n\\\\n\\\\tenableStartMiter = step(dot(currTangent, prevTangent), .5);\\\\n\\\\tenableEndMiter = step(dot(currTangent, nextTangent), .5);\\\\n\\\\n\\\\t//bevel miter cutoffs\\\\n\\\\tif (miterMode == 1.) {\\\\n\\\\t\\\\tif (enableStartMiter == 1.) {\\\\n\\\\t\\\\t\\\\tvec2 startMiterWidth = vec2(startJoinDirection) * thickness * miterLimit * .5;\\\\n\\\\t\\\\t\\\\tstartCutoff = vec4(aCoord, aCoord);\\\\n\\\\t\\\\t\\\\tstartCutoff.zw += vec2(-startJoinDirection.y, startJoinDirection.x) / scaleRatio;\\\\n\\\\t\\\\t\\\\tstartCutoff = startCutoff * scaleRatio.xyxy + translate.xyxy * viewport.zwzw;\\\\n\\\\t\\\\t\\\\tstartCutoff += viewport.xyxy;\\\\n\\\\t\\\\t\\\\tstartCutoff += startMiterWidth.xyxy;\\\\n\\\\t\\\\t}\\\\n\\\\n\\\\t\\\\tif (enableEndMiter == 1.) {\\\\n\\\\t\\\\t\\\\tvec2 endMiterWidth = vec2(endJoinDirection) * thickness * miterLimit * .5;\\\\n\\\\t\\\\t\\\\tendCutoff = vec4(bCoord, bCoord);\\\\n\\\\t\\\\t\\\\tendCutoff.zw += vec2(-endJoinDirection.y, endJoinDirection.x)  / scaleRatio;\\\\n\\\\t\\\\t\\\\tendCutoff = endCutoff * scaleRatio.xyxy + translate.xyxy * viewport.zwzw;\\\\n\\\\t\\\\t\\\\tendCutoff += viewport.xyxy;\\\\n\\\\t\\\\t\\\\tendCutoff += endMiterWidth.xyxy;\\\\n\\\\t\\\\t}\\\\n\\\\t}\\\\n\\\\n\\\\t//round miter cutoffs\\\\n\\\\telse if (miterMode == 2.) {\\\\n\\\\t\\\\tif (enableStartMiter == 1.) {\\\\n\\\\t\\\\t\\\\tvec2 startMiterWidth = vec2(startJoinDirection) * thickness * abs(dot(startJoinDirection, currNormal)) * .5;\\\\n\\\\t\\\\t\\\\tstartCutoff = vec4(aCoord, aCoord);\\\\n\\\\t\\\\t\\\\tstartCutoff.zw += vec2(-startJoinDirection.y, startJoinDirection.x) / scaleRatio;\\\\n\\\\t\\\\t\\\\tstartCutoff = startCutoff * scaleRatio.xyxy + translate.xyxy * viewport.zwzw;\\\\n\\\\t\\\\t\\\\tstartCutoff += viewport.xyxy;\\\\n\\\\t\\\\t\\\\tstartCutoff += startMiterWidth.xyxy;\\\\n\\\\t\\\\t}\\\\n\\\\n\\\\t\\\\tif (enableEndMiter == 1.) {\\\\n\\\\t\\\\t\\\\tvec2 endMiterWidth = vec2(endJoinDirection) * thickness * abs(dot(endJoinDirection, currNormal)) * .5;\\\\n\\\\t\\\\t\\\\tendCutoff = vec4(bCoord, bCoord);\\\\n\\\\t\\\\t\\\\tendCutoff.zw += vec2(-endJoinDirection.y, endJoinDirection.x)  / scaleRatio;\\\\n\\\\t\\\\t\\\\tendCutoff = endCutoff * scaleRatio.xyxy + translate.xyxy * viewport.zwzw;\\\\n\\\\t\\\\t\\\\tendCutoff += viewport.xyxy;\\\\n\\\\t\\\\t\\\\tendCutoff += endMiterWidth.xyxy;\\\\n\\\\t\\\\t}\\\\n\\\\t}\\\\n}\\\\n\\\"]),frag:o([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nuniform sampler2D dashPattern;\\\\nuniform float dashSize, pixelRatio, thickness, opacity, id, miterMode;\\\\n\\\\nvarying vec4 fragColor;\\\\nvarying vec2 tangent;\\\\nvarying vec4 startCutoff, endCutoff;\\\\nvarying vec2 startCoord, endCoord;\\\\nvarying float enableStartMiter, enableEndMiter;\\\\n\\\\nfloat distToLine(vec2 p, vec2 a, vec2 b) {\\\\n\\\\tvec2 diff = b - a;\\\\n\\\\tvec2 perp = normalize(vec2(-diff.y, diff.x));\\\\n\\\\treturn dot(p - a, perp);\\\\n}\\\\n\\\\nvoid main() {\\\\n\\\\tfloat alpha = 1., distToStart, distToEnd;\\\\n\\\\tfloat cutoff = thickness * .5;\\\\n\\\\n\\\\t//bevel miter\\\\n\\\\tif (miterMode == 1.) {\\\\n\\\\t\\\\tif (enableStartMiter == 1.) {\\\\n\\\\t\\\\t\\\\tdistToStart = distToLine(gl_FragCoord.xy, startCutoff.xy, startCutoff.zw);\\\\n\\\\t\\\\t\\\\tif (distToStart < -1.) {\\\\n\\\\t\\\\t\\\\t\\\\tdiscard;\\\\n\\\\t\\\\t\\\\t\\\\treturn;\\\\n\\\\t\\\\t\\\\t}\\\\n\\\\t\\\\t\\\\talpha *= min(max(distToStart + 1., 0.), 1.);\\\\n\\\\t\\\\t}\\\\n\\\\n\\\\t\\\\tif (enableEndMiter == 1.) {\\\\n\\\\t\\\\t\\\\tdistToEnd = distToLine(gl_FragCoord.xy, endCutoff.xy, endCutoff.zw);\\\\n\\\\t\\\\t\\\\tif (distToEnd < -1.) {\\\\n\\\\t\\\\t\\\\t\\\\tdiscard;\\\\n\\\\t\\\\t\\\\t\\\\treturn;\\\\n\\\\t\\\\t\\\\t}\\\\n\\\\t\\\\t\\\\talpha *= min(max(distToEnd + 1., 0.), 1.);\\\\n\\\\t\\\\t}\\\\n\\\\t}\\\\n\\\\n\\\\t// round miter\\\\n\\\\telse if (miterMode == 2.) {\\\\n\\\\t\\\\tif (enableStartMiter == 1.) {\\\\n\\\\t\\\\t\\\\tdistToStart = distToLine(gl_FragCoord.xy, startCutoff.xy, startCutoff.zw);\\\\n\\\\t\\\\t\\\\tif (distToStart < 0.) {\\\\n\\\\t\\\\t\\\\t\\\\tfloat radius = length(gl_FragCoord.xy - startCoord);\\\\n\\\\n\\\\t\\\\t\\\\t\\\\tif(radius > cutoff + .5) {\\\\n\\\\t\\\\t\\\\t\\\\t\\\\tdiscard;\\\\n\\\\t\\\\t\\\\t\\\\t\\\\treturn;\\\\n\\\\t\\\\t\\\\t\\\\t}\\\\n\\\\n\\\\t\\\\t\\\\t\\\\talpha -= smoothstep(cutoff - .5, cutoff + .5, radius);\\\\n\\\\t\\\\t\\\\t}\\\\n\\\\t\\\\t}\\\\n\\\\n\\\\t\\\\tif (enableEndMiter == 1.) {\\\\n\\\\t\\\\t\\\\tdistToEnd = distToLine(gl_FragCoord.xy, endCutoff.xy, endCutoff.zw);\\\\n\\\\t\\\\t\\\\tif (distToEnd < 0.) {\\\\n\\\\t\\\\t\\\\t\\\\tfloat radius = length(gl_FragCoord.xy - endCoord);\\\\n\\\\n\\\\t\\\\t\\\\t\\\\tif(radius > cutoff + .5) {\\\\n\\\\t\\\\t\\\\t\\\\t\\\\tdiscard;\\\\n\\\\t\\\\t\\\\t\\\\t\\\\treturn;\\\\n\\\\t\\\\t\\\\t\\\\t}\\\\n\\\\n\\\\t\\\\t\\\\t\\\\talpha -= smoothstep(cutoff - .5, cutoff + .5, radius);\\\\n\\\\t\\\\t\\\\t}\\\\n\\\\t\\\\t}\\\\n\\\\t}\\\\n\\\\n\\\\tfloat t = fract(dot(tangent, gl_FragCoord.xy) / dashSize) * .5 + .25;\\\\n\\\\tfloat dash = texture2D(dashPattern, vec2(t, .5)).r;\\\\n\\\\n\\\\tgl_FragColor = fragColor;\\\\n\\\\tgl_FragColor.a *= alpha * opacity * dash;\\\\n}\\\\n\\\"]),attributes:{lineEnd:{buffer:r,divisor:0,stride:8,offset:0},lineTop:{buffer:r,divisor:0,stride:8,offset:4},aColor:{buffer:t.prop(\\\"colorBuffer\\\"),stride:4,offset:0,divisor:1},bColor:{buffer:t.prop(\\\"colorBuffer\\\"),stride:4,offset:4,divisor:1},prevCoord:{buffer:t.prop(\\\"positionBuffer\\\"),stride:8,offset:0,divisor:1},aCoord:{buffer:t.prop(\\\"positionBuffer\\\"),stride:8,offset:8,divisor:1},bCoord:{buffer:t.prop(\\\"positionBuffer\\\"),stride:8,offset:16,divisor:1},nextCoord:{buffer:t.prop(\\\"positionBuffer\\\"),stride:8,offset:24,divisor:1}}},n))}catch(t){e=i}return{fill:t({primitive:\\\"triangle\\\",elements:function(t,e){return e.triangles},offset:0,vert:o([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec2 position, positionFract;\\\\n\\\\nuniform vec4 color;\\\\nuniform vec2 scale, scaleFract, translate, translateFract;\\\\nuniform float pixelRatio, id;\\\\nuniform vec4 viewport;\\\\nuniform float opacity;\\\\n\\\\nvarying vec4 fragColor;\\\\n\\\\nconst float MAX_LINES = 256.;\\\\n\\\\nvoid main() {\\\\n\\\\tfloat depth = (MAX_LINES - 4. - id) / (MAX_LINES);\\\\n\\\\n\\\\tvec2 position = position * scale + translate\\\\n       + positionFract * scale + translateFract\\\\n       + position * scaleFract\\\\n       + positionFract * scaleFract;\\\\n\\\\n\\\\tgl_Position = vec4(position * 2.0 - 1.0, depth, 1);\\\\n\\\\n\\\\tfragColor = color / 255.;\\\\n\\\\tfragColor.a *= opacity;\\\\n}\\\\n\\\"]),frag:o([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nvarying vec4 fragColor;\\\\n\\\\nvoid main() {\\\\n\\\\tgl_FragColor = fragColor;\\\\n}\\\\n\\\"]),uniforms:{scale:t.prop(\\\"scale\\\"),color:t.prop(\\\"fill\\\"),scaleFract:t.prop(\\\"scaleFract\\\"),translateFract:t.prop(\\\"translateFract\\\"),translate:t.prop(\\\"translate\\\"),opacity:t.prop(\\\"opacity\\\"),pixelRatio:t.context(\\\"pixelRatio\\\"),id:t.prop(\\\"id\\\"),viewport:function(t,e){return[e.viewport.x,e.viewport.y,t.viewportWidth,t.viewportHeight]}},attributes:{position:{buffer:t.prop(\\\"positionBuffer\\\"),stride:8,offset:8},positionFract:{buffer:t.prop(\\\"positionFractBuffer\\\"),stride:8,offset:8}},blend:n.blend,depth:{enable:!1},scissor:n.scissor,stencil:n.stencil,viewport:n.viewport}),rect:i,miter:e}},v.defaults={dashes:null,join:\\\"miter\\\",miterLimit:1,thickness:10,cap:\\\"square\\\",color:\\\"black\\\",opacity:1,overlay:!1,viewport:null,range:null,close:!1,fill:null},v.prototype.render=function(){for(var t,e=[],r=arguments.length;r--;)e[r]=arguments[r];e.length&&(t=this).update.apply(t,e),this.draw()},v.prototype.draw=function(){for(var t=this,e=[],r=arguments.length;r--;)e[r]=arguments[r];return(e.length?e:this.passes).forEach(function(e,r){var n;if(e&&Array.isArray(e))return(n=t).draw.apply(n,e);\\\"number\\\"==typeof e&&(e=t.passes[e]),e&&e.count>1&&e.opacity&&(t.regl._refresh(),e.fill&&e.triangles&&e.triangles.length>2&&t.shaders.fill(e),e.thickness&&(e.scale[0]*e.viewport.width>v.precisionThreshold||e.scale[1]*e.viewport.height>v.precisionThreshold?t.shaders.rect(e):\\\"rect\\\"===e.join||!e.join&&(e.thickness<=2||e.count>=v.maxPoints)?t.shaders.rect(e):t.shaders.miter(e)))}),this},v.prototype.update=function(t){var e=this;if(t){null!=t.length?\\\"number\\\"==typeof t[0]&&(t=[{positions:t}]):Array.isArray(t)||(t=[t]);var r=this.regl,o=this.gl;if(t.forEach(function(t,f){var d=e.passes[f];if(void 0!==t)if(null!==t){if(\\\"number\\\"==typeof t[0]&&(t={positions:t}),t=s(t,{positions:\\\"positions points data coords\\\",thickness:\\\"thickness lineWidth lineWidths line-width linewidth width stroke-width strokewidth strokeWidth\\\",join:\\\"lineJoin linejoin join type mode\\\",miterLimit:\\\"miterlimit miterLimit\\\",dashes:\\\"dash dashes dasharray dash-array dashArray\\\",color:\\\"color colour stroke colors colours stroke-color strokeColor\\\",fill:\\\"fill fill-color fillColor\\\",opacity:\\\"alpha opacity\\\",overlay:\\\"overlay crease overlap intersect\\\",close:\\\"closed close closed-path closePath\\\",range:\\\"range dataBox\\\",viewport:\\\"viewport viewBox\\\",hole:\\\"holes hole hollow\\\"}),d||(e.passes[f]=d={id:f,scale:null,scaleFract:null,translate:null,translateFract:null,count:0,hole:[],depth:0,dashLength:1,dashTexture:r.texture({channels:1,data:new Uint8Array([255]),width:1,height:1,mag:\\\"linear\\\",min:\\\"linear\\\"}),colorBuffer:r.buffer({usage:\\\"dynamic\\\",type:\\\"uint8\\\",data:new Uint8Array}),positionBuffer:r.buffer({usage:\\\"dynamic\\\",type:\\\"float\\\",data:new Uint8Array}),positionFractBuffer:r.buffer({usage:\\\"dynamic\\\",type:\\\"float\\\",data:new Uint8Array})},t=a({},v.defaults,t)),null!=t.thickness&&(d.thickness=parseFloat(t.thickness)),null!=t.opacity&&(d.opacity=parseFloat(t.opacity)),null!=t.miterLimit&&(d.miterLimit=parseFloat(t.miterLimit)),null!=t.overlay&&(d.overlay=!!t.overlay,f<v.maxLines&&(d.depth=2*(v.maxLines-1-f%v.maxLines)/v.maxLines-1)),null!=t.join&&(d.join=t.join),null!=t.hole&&(d.hole=t.hole),null!=t.fill&&(d.fill=t.fill?n(t.fill,\\\"uint8\\\"):null),null!=t.viewport&&(d.viewport=g(t.viewport)),d.viewport||(d.viewport=g([o.drawingBufferWidth,o.drawingBufferHeight])),null!=t.close&&(d.close=t.close),null===t.positions&&(t.positions=[]),t.positions){var m,y;if(t.positions.x&&t.positions.y){var x=t.positions.x,b=t.positions.y;y=d.count=Math.max(x.length,b.length),m=new Float64Array(2*y);for(var _=0;_<y;_++)m[2*_]=x[_],m[2*_+1]=b[_]}else m=l(t.positions,\\\"float64\\\"),y=d.count=Math.floor(m.length/2);var w=d.bounds=i(m,2);if(d.fill){for(var k=[],T={},A=0,M=0,S=0,E=d.count;M<E;M++){var C=m[2*M],L=m[2*M+1];isNaN(C)||isNaN(L)||null==C||null==L?(C=m[2*A],L=m[2*A+1],T[M]=A):A=M,k[S++]=C,k[S++]=L}for(var z=c(k,d.hole||[]),O=0,I=z.length;O<I;O++)null!=T[z[O]]&&(z[O]=T[z[O]]);d.triangles=z}var D=new Float64Array(m);u(D,2,w);var P=new Float64Array(2*y+6);d.close?m[0]===m[2*y-2]&&m[1]===m[2*y-1]?(P[0]=D[2*y-4],P[1]=D[2*y-3]):(P[0]=D[2*y-2],P[1]=D[2*y-1]):(P[0]=D[0],P[1]=D[1]),P.set(D,2),d.close?m[0]===m[2*y-2]&&m[1]===m[2*y-1]?(P[2*y+2]=D[2],P[2*y+3]=D[3],d.count-=1):(P[2*y+2]=D[0],P[2*y+3]=D[1],P[2*y+4]=D[2],P[2*y+5]=D[3]):(P[2*y+2]=D[2*y-2],P[2*y+3]=D[2*y-1],P[2*y+4]=D[2*y-2],P[2*y+5]=D[2*y-1]),d.positionBuffer(h(P)),d.positionFractBuffer(p(P))}if(t.range?d.range=t.range:d.range||(d.range=d.bounds),(t.range||t.positions)&&d.count){var R=d.bounds,F=R[2]-R[0],B=R[3]-R[1],N=d.range[2]-d.range[0],j=d.range[3]-d.range[1];d.scale=[F/N,B/j],d.translate=[-d.range[0]/N+R[0]/N||0,-d.range[1]/j+R[1]/j||0],d.scaleFract=p(d.scale),d.translateFract=p(d.translate)}if(t.dashes){var V,U=0;if(!t.dashes||t.dashes.length<2)U=1,V=new Uint8Array([255,255,255,255,255,255,255,255]);else{U=0;for(var H=0;H<t.dashes.length;++H)U+=t.dashes[H];V=new Uint8Array(U*v.dashMult);for(var q=0,G=255,Y=0;Y<2;Y++)for(var W=0;W<t.dashes.length;++W){for(var X=0,Z=t.dashes[W]*v.dashMult*.5;X<Z;++X)V[q++]=G;G^=255}}d.dashLength=U,d.dashTexture({channels:1,data:V,width:V.length,height:1,mag:\\\"linear\\\",min:\\\"linear\\\"},0,0)}if(t.color){var $=d.count,J=t.color;J||(J=\\\"transparent\\\");var K=new Uint8Array(4*$+4);if(Array.isArray(J)&&\\\"number\\\"!=typeof J[0]){for(var Q=0;Q<$;Q++){var tt=n(J[Q],\\\"uint8\\\");K.set(tt,4*Q)}K.set(n(J[0],\\\"uint8\\\"),4*$)}else for(var et=n(J,\\\"uint8\\\"),rt=0;rt<$+1;rt++)K.set(et,4*rt);d.colorBuffer({usage:\\\"dynamic\\\",type:\\\"uint8\\\",data:K})}}else e.passes[f]=null}),t.length<this.passes.length){for(var f=t.length;f<this.passes.length;f++){var d=e.passes[f];d&&(d.colorBuffer.destroy(),d.positionBuffer.destroy(),d.dashTexture.destroy())}this.passes.length=t.length}for(var m=[],y=0;y<this.passes.length;y++)null!==e.passes[y]&&m.push(e.passes[y]);return this.passes=m,this}},v.prototype.destroy=function(){return this.passes.forEach(function(t){t.colorBuffer.destroy(),t.positionBuffer.destroy(),t.dashTexture.destroy()}),this.passes.length=0,this}},{\\\"array-bounds\\\":58,\\\"array-normalize\\\":59,\\\"color-normalize\\\":113,earcut:165,\\\"es6-weak-map\\\":219,\\\"flatten-vertex-data\\\":226,glslify:404,\\\"object-assign\\\":449,\\\"parse-rect\\\":454,\\\"pick-by-alias\\\":460,\\\"to-float32\\\":525}],487:[function(t,e,r){\\\"use strict\\\";function n(t,e){return function(t){if(Array.isArray(t))return t}(t)||function(t,e){var r=[],n=!0,i=!1,a=void 0;try{for(var o,s=t[Symbol.iterator]();!(n=(o=s.next()).done)&&(r.push(o.value),!e||r.length!==e);n=!0);}catch(t){i=!0,a=t}finally{try{n||null==s.return||s.return()}finally{if(i)throw a}}return r}(t,e)||function(){throw new TypeError(\\\"Invalid attempt to destructure non-iterable instance\\\")}()}function i(t){return function(t){if(Array.isArray(t)){for(var e=0,r=new Array(t.length);e<t.length;e++)r[e]=t[e];return r}}(t)||function(t){if(Symbol.iterator in Object(t)||\\\"[object Arguments]\\\"===Object.prototype.toString.call(t))return Array.from(t)}(t)||function(){throw new TypeError(\\\"Invalid attempt to spread non-iterable instance\\\")}()}var a=t(\\\"color-normalize\\\"),o=t(\\\"array-bounds\\\"),s=t(\\\"color-id\\\"),l=t(\\\"point-cluster\\\"),c=t(\\\"object-assign\\\"),u=t(\\\"glslify\\\"),f=t(\\\"pick-by-alias\\\"),h=t(\\\"update-diff\\\"),p=t(\\\"flatten-vertex-data\\\"),d=t(\\\"is-iexplorer\\\"),g=t(\\\"to-float32\\\"),v=t(\\\"parse-rect\\\"),m=y;function y(t,e){var r=this;if(!(this instanceof y))return new y(t,e);\\\"function\\\"==typeof t?(e||(e={}),e.regl=t):(e=t,t=null),e&&e.length&&(e.positions=e);var n,i=(t=e.regl)._gl,a=[];this.tooManyColors=d,n=t.texture({data:new Uint8Array(1020),width:255,height:1,type:\\\"uint8\\\",format:\\\"rgba\\\",wrapS:\\\"clamp\\\",wrapT:\\\"clamp\\\",mag:\\\"nearest\\\",min:\\\"nearest\\\"}),c(this,{regl:t,gl:i,groups:[],markerCache:[null],markerTextures:[null],palette:a,paletteIds:{},paletteTexture:n,maxColors:255,maxSize:100,canvas:i.canvas}),this.update(e);var o={uniforms:{pixelRatio:t.context(\\\"pixelRatio\\\"),palette:n,paletteSize:function(t,e){return[r.tooManyColors?0:255,n.height]},scale:t.prop(\\\"scale\\\"),scaleFract:t.prop(\\\"scaleFract\\\"),translate:t.prop(\\\"translate\\\"),translateFract:t.prop(\\\"translateFract\\\"),opacity:t.prop(\\\"opacity\\\"),marker:t.prop(\\\"markerTexture\\\")},attributes:{x:function(t,e){return e.xAttr||{buffer:e.positionBuffer,stride:8,offset:0}},y:function(t,e){return e.yAttr||{buffer:e.positionBuffer,stride:8,offset:4}},xFract:function(t,e){return e.xAttr?{constant:[0,0]}:{buffer:e.positionFractBuffer,stride:8,offset:0}},yFract:function(t,e){return e.yAttr?{constant:[0,0]}:{buffer:e.positionFractBuffer,stride:8,offset:4}},size:function(t,e){return e.size.length?{buffer:e.sizeBuffer,stride:2,offset:0}:{constant:[Math.round(255*e.size/r.maxSize)]}},borderSize:function(t,e){return e.borderSize.length?{buffer:e.sizeBuffer,stride:2,offset:1}:{constant:[Math.round(255*e.borderSize/r.maxSize)]}},colorId:function(t,e){return e.color.length?{buffer:e.colorBuffer,stride:r.tooManyColors?8:4,offset:0}:{constant:r.tooManyColors?a.slice(4*e.color,4*e.color+4):[e.color]}},borderColorId:function(t,e){return e.borderColor.length?{buffer:e.colorBuffer,stride:r.tooManyColors?8:4,offset:r.tooManyColors?4:2}:{constant:r.tooManyColors?a.slice(4*e.borderColor,4*e.borderColor+4):[e.borderColor]}},isActive:function(t,e){return!0===e.activation?{constant:[1]}:e.activation?e.activation:{constant:[0]}}},blend:{enable:!0,color:[0,0,0,1],func:{srcRGB:\\\"src alpha\\\",dstRGB:\\\"one minus src alpha\\\",srcAlpha:\\\"one minus dst alpha\\\",dstAlpha:\\\"one\\\"}},scissor:{enable:!0,box:t.prop(\\\"viewport\\\")},viewport:t.prop(\\\"viewport\\\"),stencil:{enable:!1},depth:{enable:!1},elements:t.prop(\\\"elements\\\"),count:t.prop(\\\"count\\\"),offset:t.prop(\\\"offset\\\"),primitive:\\\"points\\\"},s=c({},o);s.frag=u([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nvarying vec4 fragColor, fragBorderColor;\\\\nvarying float fragWidth, fragBorderColorLevel, fragColorLevel;\\\\n\\\\nuniform sampler2D marker;\\\\nuniform float pixelRatio, opacity;\\\\n\\\\nfloat smoothStep(float x, float y) {\\\\n  return 1.0 / (1.0 + exp(50.0*(x - y)));\\\\n}\\\\n\\\\nvoid main() {\\\\n  float dist = texture2D(marker, gl_PointCoord).r, delta = fragWidth;\\\\n\\\\n  // max-distance alpha\\\\n  if (dist < 0.003) discard;\\\\n\\\\n  // null-border case\\\\n  if (fragBorderColorLevel == fragColorLevel || fragBorderColor.a == 0.) {\\\\n    float colorAmt = smoothstep(.5 - delta, .5 + delta, dist);\\\\n    gl_FragColor = vec4(fragColor.rgb, colorAmt * fragColor.a * opacity);\\\\n  }\\\\n  else {\\\\n    float borderColorAmt = smoothstep(fragBorderColorLevel - delta, fragBorderColorLevel + delta, dist);\\\\n    float colorAmt = smoothstep(fragColorLevel - delta, fragColorLevel + delta, dist);\\\\n\\\\n    vec4 color = fragBorderColor;\\\\n    color.a *= borderColorAmt;\\\\n    color = mix(color, fragColor, colorAmt);\\\\n    color.a *= opacity;\\\\n\\\\n    gl_FragColor = color;\\\\n  }\\\\n\\\\n}\\\\n\\\"]),s.vert=u([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute float x, y, xFract, yFract;\\\\nattribute float size, borderSize;\\\\nattribute vec4 colorId, borderColorId;\\\\nattribute float isActive;\\\\n\\\\nuniform vec2 scale, scaleFract, translate, translateFract, paletteSize;\\\\nuniform float pixelRatio;\\\\nuniform sampler2D palette;\\\\n\\\\nconst float maxSize = 100.;\\\\nconst float borderLevel = .5;\\\\n\\\\nvarying vec4 fragColor, fragBorderColor;\\\\nvarying float fragPointSize, fragBorderRadius, fragWidth, fragBorderColorLevel, fragColorLevel;\\\\n\\\\nbool isDirect = (paletteSize.x < 1.);\\\\n\\\\nvec4 getColor(vec4 id) {\\\\n  return isDirect ? id / 255. : texture2D(palette,\\\\n    vec2(\\\\n      (id.x + .5) / paletteSize.x,\\\\n      (id.y + .5) / paletteSize.y\\\\n    )\\\\n  );\\\\n}\\\\n\\\\nvoid main() {\\\\n  if (isActive == 0.) return;\\\\n\\\\n  vec2 position = vec2(x, y);\\\\n  vec2 positionFract = vec2(xFract, yFract);\\\\n\\\\n  vec4 color = getColor(colorId);\\\\n  vec4 borderColor = getColor(borderColorId);\\\\n\\\\n  float size = size * maxSize / 255.;\\\\n  float borderSize = borderSize * maxSize / 255.;\\\\n\\\\n  gl_PointSize = 2. * size * pixelRatio;\\\\n  fragPointSize = size * pixelRatio;\\\\n\\\\n  vec2 pos = (position + translate) * scale\\\\n      + (positionFract + translateFract) * scale\\\\n      + (position + translate) * scaleFract\\\\n      + (positionFract + translateFract) * scaleFract;\\\\n\\\\n  gl_Position = vec4(pos * 2. - 1., 0, 1);\\\\n\\\\n  fragColor = color;\\\\n  fragBorderColor = borderColor;\\\\n  fragWidth = 1. / gl_PointSize;\\\\n\\\\n  fragBorderColorLevel = clamp(borderLevel - borderLevel * borderSize / size, 0., 1.);\\\\n  fragColorLevel = clamp(borderLevel + (1. - borderLevel) * borderSize / size, 0., 1.);\\\\n}\\\"]),this.drawMarker=t(s);var l=c({},o);l.frag=u([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nvarying vec4 fragColor, fragBorderColor;\\\\n\\\\nuniform float opacity;\\\\nvarying float fragBorderRadius, fragWidth;\\\\n\\\\nfloat smoothStep(float edge0, float edge1, float x) {\\\\n\\\\tfloat t;\\\\n\\\\tt = clamp((x - edge0) / (edge1 - edge0), 0.0, 1.0);\\\\n\\\\treturn t * t * (3.0 - 2.0 * t);\\\\n}\\\\n\\\\nvoid main() {\\\\n\\\\tfloat radius, alpha = 1.0, delta = fragWidth;\\\\n\\\\n\\\\tradius = length(2.0 * gl_PointCoord.xy - 1.0);\\\\n\\\\n\\\\tif (radius > 1.0 + delta) {\\\\n\\\\t\\\\tdiscard;\\\\n\\\\t}\\\\n\\\\n\\\\talpha -= smoothstep(1.0 - delta, 1.0 + delta, radius);\\\\n\\\\n\\\\tfloat borderRadius = fragBorderRadius;\\\\n\\\\tfloat ratio = smoothstep(borderRadius - delta, borderRadius + delta, radius);\\\\n\\\\tvec4 color = mix(fragColor, fragBorderColor, ratio);\\\\n\\\\tcolor.a *= alpha * opacity;\\\\n\\\\tgl_FragColor = color;\\\\n}\\\\n\\\"]),l.vert=u([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute float x, y, xFract, yFract;\\\\nattribute float size, borderSize;\\\\nattribute vec4 colorId, borderColorId;\\\\nattribute float isActive;\\\\n\\\\nuniform vec2 scale, scaleFract, translate, translateFract;\\\\nuniform float pixelRatio;\\\\nuniform sampler2D palette;\\\\nuniform vec2 paletteSize;\\\\n\\\\nconst float maxSize = 100.;\\\\n\\\\nvarying vec4 fragColor, fragBorderColor;\\\\nvarying float fragBorderRadius, fragWidth;\\\\n\\\\nbool isDirect = (paletteSize.x < 1.);\\\\n\\\\nvec4 getColor(vec4 id) {\\\\n  return isDirect ? id / 255. : texture2D(palette,\\\\n    vec2(\\\\n      (id.x + .5) / paletteSize.x,\\\\n      (id.y + .5) / paletteSize.y\\\\n    )\\\\n  );\\\\n}\\\\n\\\\nvoid main() {\\\\n  // ignore inactive points\\\\n  if (isActive == 0.) return;\\\\n\\\\n  vec2 position = vec2(x, y);\\\\n  vec2 positionFract = vec2(xFract, yFract);\\\\n\\\\n  vec4 color = getColor(colorId);\\\\n  vec4 borderColor = getColor(borderColorId);\\\\n\\\\n  float size = size * maxSize / 255.;\\\\n  float borderSize = borderSize * maxSize / 255.;\\\\n\\\\n  gl_PointSize = (size + borderSize) * pixelRatio;\\\\n\\\\n  vec2 pos = (position + translate) * scale\\\\n      + (positionFract + translateFract) * scale\\\\n      + (position + translate) * scaleFract\\\\n      + (positionFract + translateFract) * scaleFract;\\\\n\\\\n  gl_Position = vec4(pos * 2. - 1., 0, 1);\\\\n\\\\n  fragBorderRadius = 1. - 2. * borderSize / (size + borderSize);\\\\n  fragColor = color;\\\\n  fragBorderColor = borderColor.a == 0. || borderSize == 0. ? vec4(color.rgb, 0.) : borderColor;\\\\n  fragWidth = 1. / gl_PointSize;\\\\n}\\\\n\\\"]),d&&(l.frag=l.frag.replace(\\\"smoothstep\\\",\\\"smoothStep\\\"),s.frag=s.frag.replace(\\\"smoothstep\\\",\\\"smoothStep\\\")),this.drawCircle=t(l)}y.defaults={color:\\\"black\\\",borderColor:\\\"transparent\\\",borderSize:0,size:12,opacity:1,marker:void 0,viewport:null,range:null,pixelSize:null,count:0,offset:0,bounds:null,positions:[],snap:1e4},y.prototype.render=function(){return arguments.length&&this.update.apply(this,arguments),this.draw(),this},y.prototype.draw=function(){for(var t=this,e=arguments.length,r=new Array(e),n=0;n<e;n++)r[n]=arguments[n];var i=this.groups;if(1===r.length&&Array.isArray(r[0])&&(null===r[0][0]||Array.isArray(r[0][0]))&&(r=r[0]),this.regl._refresh(),r.length)for(var a=0;a<r.length;a++)this.drawItem(a,r[a]);else i.forEach(function(e,r){t.drawItem(r)});return this},y.prototype.drawItem=function(t,e){var r=this.groups,n=r[t];if(\\\"number\\\"==typeof e&&(t=e,n=r[e],e=null),n&&n.count&&n.opacity){n.activation[0]&&this.drawCircle(this.getMarkerDrawOptions(0,n,e));for(var a=[],o=1;o<n.activation.length;o++)n.activation[o]&&(!0===n.activation[o]||n.activation[o].data.length)&&a.push.apply(a,i(this.getMarkerDrawOptions(o,n,e)));a.length&&this.drawMarker(a)}},y.prototype.getMarkerDrawOptions=function(t,e,r){var i=e.range,a=e.tree,o=e.viewport,s=e.activation,l=e.selectionBuffer,u=e.count;this.regl;if(!a)return r?[c({},e,{markerTexture:this.markerTextures[t],activation:s[t],count:r.length,elements:r,offset:0})]:[c({},e,{markerTexture:this.markerTextures[t],activation:s[t],offset:0})];var f=[],h=a.range(i,{lod:!0,px:[(i[2]-i[0])/o.width,(i[3]-i[1])/o.height]});if(r){for(var p=s[t].data,d=new Uint8Array(u),g=0;g<r.length;g++){var v=r[g];d[v]=p?p[v]:1}l.subdata(d)}for(var m=h.length;m--;){var y=n(h[m],2),x=y[0],b=y[1];f.push(c({},e,{markerTexture:this.markerTextures[t],activation:r?l:s[t],offset:x,count:b-x}))}return f},y.prototype.update=function(){for(var t=this,e=arguments.length,r=new Array(e),n=0;n<e;n++)r[n]=arguments[n];if(r.length){1===r.length&&Array.isArray(r[0])&&(r=r[0]);var i=this.groups,a=this.gl,s=this.regl,u=this.maxSize,d=this.maxColors,m=this.palette;this.groups=i=r.map(function(e,r){var n=i[r];if(void 0===e)return n;null===e?e={positions:null}:\\\"function\\\"==typeof e?e={ondraw:e}:\\\"number\\\"==typeof e[0]&&(e={positions:e}),null===(e=f(e,{positions:\\\"positions data points\\\",snap:\\\"snap cluster lod tree\\\",size:\\\"sizes size radius\\\",borderSize:\\\"borderSizes borderSize border-size bordersize borderWidth borderWidths border-width borderwidth stroke-width strokeWidth strokewidth outline\\\",color:\\\"colors color fill fill-color fillColor\\\",borderColor:\\\"borderColors borderColor stroke stroke-color strokeColor\\\",marker:\\\"markers marker shape\\\",range:\\\"range dataBox databox\\\",viewport:\\\"viewport viewPort viewBox viewbox\\\",opacity:\\\"opacity alpha transparency\\\",bounds:\\\"bound bounds boundaries limits\\\",tooManyColors:\\\"tooManyColors palette paletteMode optimizePalette enablePalette\\\"})).positions&&(e.positions=[]),null!=e.tooManyColors&&(t.tooManyColors=e.tooManyColors),n||(i[r]=n={id:r,scale:null,translate:null,scaleFract:null,translateFract:null,activation:[],selectionBuffer:s.buffer({data:new Uint8Array(0),usage:\\\"stream\\\",type:\\\"uint8\\\"}),sizeBuffer:s.buffer({data:new Uint8Array(0),usage:\\\"dynamic\\\",type:\\\"uint8\\\"}),colorBuffer:s.buffer({data:new Uint8Array(0),usage:\\\"dynamic\\\",type:\\\"uint8\\\"}),positionBuffer:s.buffer({data:new Uint8Array(0),usage:\\\"dynamic\\\",type:\\\"float\\\"}),positionFractBuffer:s.buffer({data:new Uint8Array(0),usage:\\\"dynamic\\\",type:\\\"float\\\"})},e=c({},y.defaults,e)),!e.positions||\\\"marker\\\"in e||(e.marker=n.marker,delete n.marker),!e.marker||\\\"positions\\\"in e||(e.positions=n.positions,delete n.positions);var x=0,b=0;if(h(n,e,[{snap:!0,size:function(t,e){return null==t&&(t=y.defaults.size),x+=t&&t.length?1:0,t},borderSize:function(t,e){return null==t&&(t=y.defaults.borderSize),x+=t&&t.length?1:0,t},opacity:parseFloat,color:function(e,r){return null==e&&(e=y.defaults.color),e=t.updateColor(e),b++,e},borderColor:function(e,r){return null==e&&(e=y.defaults.borderColor),e=t.updateColor(e),b++,e},bounds:function(t,e,r){return\\\"range\\\"in r||(r.range=null),t},positions:function(t,e,r){var n=e.snap,i=e.positionBuffer,a=e.positionFractBuffer,c=e.selectionBuffer;if(t.x||t.y)return t.x.length?e.xAttr={buffer:s.buffer(t.x),offset:0,stride:4,count:t.x.length}:e.xAttr={buffer:t.x.buffer,offset:4*t.x.offset||0,stride:4*(t.x.stride||1),count:t.x.count},t.y.length?e.yAttr={buffer:s.buffer(t.y),offset:0,stride:4,count:t.y.length}:e.yAttr={buffer:t.y.buffer,offset:4*t.y.offset||0,stride:4*(t.y.stride||1),count:t.y.count},e.count=Math.max(e.xAttr.count,e.yAttr.count),t;t=p(t,\\\"float64\\\");var u=e.count=Math.floor(t.length/2),f=e.bounds=u?o(t,2):null;if(r.range||e.range||(delete e.range,r.range=f),r.marker||e.marker||(delete e.marker,r.marker=null),n&&(!0===n||u>n)?e.tree=l(t,{bounds:f}):n&&n.length&&(e.tree=n),e.tree){var h={primitive:\\\"points\\\",usage:\\\"static\\\",data:e.tree,type:\\\"uint32\\\"};e.elements?e.elements(h):e.elements=s.elements(h)}return i({data:g.float(t),usage:\\\"dynamic\\\"}),a({data:g.fract(t),usage:\\\"dynamic\\\"}),c({data:new Uint8Array(u),type:\\\"uint8\\\",usage:\\\"stream\\\"}),t}},{marker:function(e,r,n){var i=r.activation;if(i.forEach(function(t){return t&&t.destroy&&t.destroy()}),i.length=0,e&&\\\"number\\\"!=typeof e[0]){for(var a=[],o=0,l=Math.min(e.length,r.count);o<l;o++){var c=t.addMarker(e[o]);a[c]||(a[c]=new Uint8Array(r.count)),a[c][o]=1}for(var u=0;u<a.length;u++)if(a[u]){var f={data:a[u],type:\\\"uint8\\\",usage:\\\"static\\\"};i[u]?i[u](f):i[u]=s.buffer(f),i[u].data=a[u]}}else{i[t.addMarker(e)]=!0}return e},range:function(t,e,r){var n=e.bounds;if(n)return t||(t=n),e.scale=[1/(t[2]-t[0]),1/(t[3]-t[1])],e.translate=[-t[0],-t[1]],e.scaleFract=g.fract(e.scale),e.translateFract=g.fract(e.translate),t},viewport:function(t){return v(t||[a.drawingBufferWidth,a.drawingBufferHeight])}}]),x){var _=n,w=_.count,k=_.size,T=_.borderSize,A=_.sizeBuffer,M=new Uint8Array(2*w);if(k.length||T.length)for(var S=0;S<w;S++)M[2*S]=Math.round(255*(null==k[S]?k:k[S])/u),M[2*S+1]=Math.round(255*(null==T[S]?T:T[S])/u);A({data:M,usage:\\\"dynamic\\\"})}if(b){var E,C=n,L=C.count,z=C.color,O=C.borderColor,I=C.colorBuffer;if(t.tooManyColors){if(z.length||O.length){E=new Uint8Array(8*L);for(var D=0;D<L;D++){var P=z[D];E[8*D]=m[4*P],E[8*D+1]=m[4*P+1],E[8*D+2]=m[4*P+2],E[8*D+3]=m[4*P+3];var R=O[D];E[8*D+4]=m[4*R],E[8*D+5]=m[4*R+1],E[8*D+6]=m[4*R+2],E[8*D+7]=m[4*R+3]}}}else if(z.length||O.length){E=new Uint8Array(4*L+2);for(var F=0;F<L;F++)null!=z[F]&&(E[4*F]=z[F]%d,E[4*F+1]=Math.floor(z[F]/d)),null!=O[F]&&(E[4*F+2]=O[F]%d,E[4*F+3]=Math.floor(O[F]/d))}I({data:E||new Uint8Array(0),type:\\\"uint8\\\",usage:\\\"dynamic\\\"})}return n})}},y.prototype.addMarker=function(t){var e,r=this.markerTextures,n=this.regl,i=this.markerCache,a=null==t?0:i.indexOf(t);if(a>=0)return a;if(t instanceof Uint8Array||t instanceof Uint8ClampedArray)e=t;else{e=new Uint8Array(t.length);for(var o=0,s=t.length;o<s;o++)e[o]=255*t[o]}var l=Math.floor(Math.sqrt(e.length));return a=r.length,i.push(t),r.push(n.texture({channels:1,data:e,radius:l,mag:\\\"linear\\\",min:\\\"linear\\\"})),a},y.prototype.updateColor=function(t){var e=this.paletteIds,r=this.palette,n=this.maxColors;Array.isArray(t)||(t=[t]);var i=[];if(\\\"number\\\"==typeof t[0]){var o=[];if(Array.isArray(t))for(var l=0;l<t.length;l+=4)o.push(t.slice(l,l+4));else for(var c=0;c<t.length;c+=4)o.push(t.subarray(c,c+4));t=o}for(var u=0;u<t.length;u++){var f=t[u];f=a(f,\\\"uint8\\\");var h=s(f,!1);if(null==e[h]){var p=r.length;e[h]=Math.floor(p/4),r[p]=f[0],r[p+1]=f[1],r[p+2]=f[2],r[p+3]=f[3]}i[u]=e[h]}return!this.tooManyColors&&r.length>4*n&&(this.tooManyColors=!0),this.updatePalette(r),1===i.length?i[0]:i},y.prototype.updatePalette=function(t){if(!this.tooManyColors){var e=this.maxColors,r=this.paletteTexture,n=Math.ceil(.25*t.length/e);if(n>1)for(var i=.25*(t=t.slice()).length%e;i<n*e;i++)t.push(0,0,0,0);r.height<n&&r.resize(e,n),r.subimage({width:Math.min(.25*t.length,e),height:n,data:t},0,0)}},y.prototype.destroy=function(){return this.groups.forEach(function(t){t.sizeBuffer.destroy(),t.positionBuffer.destroy(),t.positionFractBuffer.destroy(),t.colorBuffer.destroy(),t.activation.forEach(function(t){return t&&t.destroy&&t.destroy()}),t.selectionBuffer.destroy(),t.elements&&t.elements.destroy()}),this.groups.length=0,this.paletteTexture.destroy(),this.markerTextures.forEach(function(t){return t&&t.destroy&&t.destroy()}),this};var x=t(\\\"object-assign\\\");e.exports=function(t,e){var r=new m(t,e),n=r.render.bind(r);return x(n,{render:n,update:r.update.bind(r),draw:r.draw.bind(r),destroy:r.destroy.bind(r),regl:r.regl,gl:r.gl,canvas:r.gl.canvas,groups:r.groups,markers:r.markerCache,palette:r.palette}),n}},{\\\"array-bounds\\\":58,\\\"color-id\\\":111,\\\"color-normalize\\\":113,\\\"flatten-vertex-data\\\":226,glslify:404,\\\"is-iexplorer\\\":414,\\\"object-assign\\\":449,\\\"parse-rect\\\":454,\\\"pick-by-alias\\\":460,\\\"point-cluster\\\":464,\\\"to-float32\\\":525,\\\"update-diff\\\":536}],488:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"regl-scatter2d\\\"),i=t(\\\"pick-by-alias\\\"),a=t(\\\"array-bounds\\\"),o=t(\\\"raf\\\"),s=t(\\\"array-range\\\"),l=t(\\\"parse-rect\\\"),c=t(\\\"flatten-vertex-data\\\");function u(t,e){if(!(this instanceof u))return new u(t,e);this.traces=[],this.passes={},this.regl=t,this.scatter=n(t),this.canvas=this.scatter.canvas}function f(t,e,r){return(null!=t.id?t.id:t)<<16|(255&e)<<8|255&r}function h(t,e,r){var n,i,a,o,s=t[e],l=t[r];return s.length>2?(s[0],s[2],n=s[1],i=s[3]):s.length?(n=s[0],i=s[1]):(s.x,n=s.y,s.x+s.width,i=s.y+s.height),l.length>2?(a=l[0],o=l[2],l[1],l[3]):l.length?(a=l[0],o=l[1]):(a=l.x,l.y,o=l.x+l.width,l.y+l.height),[a,n,o,i]}function p(t){if(\\\"number\\\"==typeof t)return[t,t,t,t];if(2===t.length)return[t[0],t[1],t[0],t[1]];var e=l(t);return[e.x,e.y,e.x+e.width,e.y+e.height]}e.exports=u,u.prototype.render=function(){for(var t,e=this,r=[],n=arguments.length;n--;)r[n]=arguments[n];return r.length&&(t=this).update.apply(t,r),this.regl.attributes.preserveDrawingBuffer?this.draw():(this.dirty?null==this.planned&&(this.planned=o(function(){e.draw(),e.dirty=!0,e.planned=null})):(this.draw(),this.dirty=!0,o(function(){e.dirty=!1})),this)},u.prototype.update=function(){for(var t,e=[],r=arguments.length;r--;)e[r]=arguments[r];if(e.length){for(var n=0;n<e.length;n++)this.updateItem(n,e[n]);this.traces=this.traces.filter(Boolean);for(var i=[],a=0,o=0;o<this.traces.length;o++){for(var s=this.traces[o],l=this.traces[o].passes,c=0;c<l.length;c++)i.push(this.passes[l[c]]);s.passOffset=a,a+=s.passes.length}return(t=this.scatter).update.apply(t,i),this}},u.prototype.updateItem=function(t,e){var r=this.regl;if(null===e)return this.traces[t]=null,this;if(!e)return this;var n,o=i(e,{data:\\\"data items columns rows values dimensions samples x\\\",snap:\\\"snap cluster\\\",size:\\\"sizes size radius\\\",color:\\\"colors color fill fill-color fillColor\\\",opacity:\\\"opacity alpha transparency opaque\\\",borderSize:\\\"borderSizes borderSize border-size bordersize borderWidth borderWidths border-width borderwidth stroke-width strokeWidth strokewidth outline\\\",borderColor:\\\"borderColors borderColor bordercolor stroke stroke-color strokeColor\\\",marker:\\\"markers marker shape\\\",range:\\\"range ranges databox dataBox\\\",viewport:\\\"viewport viewBox viewbox\\\",domain:\\\"domain domains area areas\\\",padding:\\\"pad padding paddings pads margin margins\\\",transpose:\\\"transpose transposed\\\",diagonal:\\\"diagonal diag showDiagonal\\\",upper:\\\"upper up top upperhalf upperHalf showupperhalf showUpper showUpperHalf\\\",lower:\\\"lower low bottom lowerhalf lowerHalf showlowerhalf showLowerHalf showLower\\\"}),s=this.traces[t]||(this.traces[t]={id:t,buffer:r.buffer({usage:\\\"dynamic\\\",type:\\\"float\\\",data:new Uint8Array}),color:\\\"black\\\",marker:null,size:12,borderColor:\\\"transparent\\\",borderSize:1,viewport:l([r._gl.drawingBufferWidth,r._gl.drawingBufferHeight]),padding:[0,0,0,0],opacity:1,diagonal:!0,upper:!0,lower:!0});if(null!=o.color&&(s.color=o.color),null!=o.size&&(s.size=o.size),null!=o.marker&&(s.marker=o.marker),null!=o.borderColor&&(s.borderColor=o.borderColor),null!=o.borderSize&&(s.borderSize=o.borderSize),null!=o.opacity&&(s.opacity=o.opacity),o.viewport&&(s.viewport=l(o.viewport)),null!=o.diagonal&&(s.diagonal=o.diagonal),null!=o.upper&&(s.upper=o.upper),null!=o.lower&&(s.lower=o.lower),o.data){s.buffer(c(o.data)),s.columns=o.data.length,s.count=o.data[0].length,s.bounds=[];for(var u=0;u<s.columns;u++)s.bounds[u]=a(o.data[u],1)}o.range&&(s.range=o.range,n=s.range&&\\\"number\\\"!=typeof s.range[0]),o.domain&&(s.domain=o.domain);var d=!1;null!=o.padding&&(Array.isArray(o.padding)&&o.padding.length===s.columns&&\\\"number\\\"==typeof o.padding[o.padding.length-1]?(s.padding=o.padding.map(p),d=!0):s.padding=p(o.padding));var g=s.columns,v=s.count,m=s.viewport.width,y=s.viewport.height,x=s.viewport.x,b=s.viewport.y,_=m/g,w=y/g;s.passes=[];for(var k=0;k<g;k++)for(var T=0;T<g;T++)if((s.diagonal||T!==k)&&(s.upper||!(k>T))&&(s.lower||!(k<T))){var A=f(s.id,k,T),M=this.passes[A]||(this.passes[A]={});if(o.data&&(o.transpose?M.positions={x:{buffer:s.buffer,offset:T,count:v,stride:g},y:{buffer:s.buffer,offset:k,count:v,stride:g}}:M.positions={x:{buffer:s.buffer,offset:T*v,count:v},y:{buffer:s.buffer,offset:k*v,count:v}},M.bounds=h(s.bounds,k,T)),o.domain||o.viewport||o.data){var S=d?h(s.padding,k,T):s.padding;if(s.domain){var E=h(s.domain,k,T),C=E[0],L=E[1],z=E[2],O=E[3];M.viewport=[x+C*m+S[0],b+L*y+S[1],x+z*m-S[2],b+O*y-S[3]]}else M.viewport=[x+T*_+_*S[0],b+k*w+w*S[1],x+(T+1)*_-_*S[2],b+(k+1)*w-w*S[3]]}o.color&&(M.color=s.color),o.size&&(M.size=s.size),o.marker&&(M.marker=s.marker),o.borderSize&&(M.borderSize=s.borderSize),o.borderColor&&(M.borderColor=s.borderColor),o.opacity&&(M.opacity=s.opacity),o.range&&(M.range=n?h(s.range,k,T):s.range||M.bounds),s.passes.push(A)}return this},u.prototype.draw=function(){for(var t,e=[],r=arguments.length;r--;)e[r]=arguments[r];if(e.length){for(var n=[],i=0;i<e.length;i++)if(\\\"number\\\"==typeof e[i]){var a=this.traces[e[i]],o=a.passes,l=a.passOffset;n.push.apply(n,s(l,l+o.length))}else if(e[i].length){var c=e[i],u=this.traces[i],f=u.passes,h=u.passOffset;f=f.map(function(t,e){n[h+e]=c})}(t=this.scatter).draw.apply(t,n)}else this.scatter.draw();return this},u.prototype.destroy=function(){return this.traces.forEach(function(t){t.buffer&&t.buffer.destroy&&t.buffer.destroy()}),this.traces=null,this.passes=null,this.scatter.destroy(),this}},{\\\"array-bounds\\\":58,\\\"array-range\\\":60,\\\"flatten-vertex-data\\\":226,\\\"parse-rect\\\":454,\\\"pick-by-alias\\\":460,raf:479,\\\"regl-scatter2d\\\":487}],489:[function(t,e,r){var n,i;n=this,i=function(){function t(t,e){this.id=V++,this.type=t,this.data=e}function e(t){return\\\"[\\\"+function t(e){if(0===e.length)return[];var r=e.charAt(0),n=e.charAt(e.length-1);if(1<e.length&&r===n&&('\\\"'===r||\\\"'\\\"===r))return['\\\"'+e.substr(1,e.length-2).replace(/\\\\\\\\/g,\\\"\\\\\\\\\\\\\\\\\\\").replace(/\\\"/g,'\\\\\\\\\\\"')+'\\\"'];if(r=/\\\\[(false|true|null|\\\\d+|'[^']*'|\\\"[^\\\"]*\\\")\\\\]/.exec(e))return t(e.substr(0,r.index)).concat(t(r[1])).concat(t(e.substr(r.index+r[0].length)));if(1===(r=e.split(\\\".\\\")).length)return['\\\"'+e.replace(/\\\\\\\\/g,\\\"\\\\\\\\\\\\\\\\\\\").replace(/\\\"/g,'\\\\\\\\\\\"')+'\\\"'];for(e=[],n=0;n<r.length;++n)e=e.concat(t(r[n]));return e}(t).join(\\\"][\\\")+\\\"]\\\"}function r(t){return\\\"string\\\"==typeof t?t.split():t}function n(t){return\\\"string\\\"==typeof t?document.querySelector(t):t}function i(t){var e,i,a,o,s=t||{};t={};var l=[],c=[],u=\\\"undefined\\\"==typeof window?1:window.devicePixelRatio,f=!1,h=function(t){},p=function(){};if(\\\"string\\\"==typeof s?e=document.querySelector(s):\\\"object\\\"==typeof s&&(\\\"string\\\"==typeof s.nodeName&&\\\"function\\\"==typeof s.appendChild&&\\\"function\\\"==typeof s.getBoundingClientRect?e=s:\\\"function\\\"==typeof s.drawArrays||\\\"function\\\"==typeof s.drawElements?a=(o=s).canvas:(\\\"gl\\\"in s?o=s.gl:\\\"canvas\\\"in s?a=n(s.canvas):\\\"container\\\"in s&&(i=n(s.container)),\\\"attributes\\\"in s&&(t=s.attributes),\\\"extensions\\\"in s&&(l=r(s.extensions)),\\\"optionalExtensions\\\"in s&&(c=r(s.optionalExtensions)),\\\"onDone\\\"in s&&(h=s.onDone),\\\"profile\\\"in s&&(f=!!s.profile),\\\"pixelRatio\\\"in s&&(u=+s.pixelRatio))),e&&(\\\"canvas\\\"===e.nodeName.toLowerCase()?a=e:i=e),!o){if(!a){if(!(e=function(t,e,r){function n(){var e=window.innerWidth,n=window.innerHeight;t!==document.body&&(e=(n=t.getBoundingClientRect()).right-n.left,n=n.bottom-n.top),i.width=r*e,i.height=r*n,j(i.style,{width:e+\\\"px\\\",height:n+\\\"px\\\"})}var i=document.createElement(\\\"canvas\\\");return j(i.style,{border:0,margin:0,padding:0,top:0,left:0}),t.appendChild(i),t===document.body&&(i.style.position=\\\"absolute\\\",j(t.style,{margin:0,padding:0})),window.addEventListener(\\\"resize\\\",n,!1),n(),{canvas:i,onDestroy:function(){window.removeEventListener(\\\"resize\\\",n),t.removeChild(i)}}}(i||document.body,0,u)))return null;a=e.canvas,p=e.onDestroy}o=function(t,e){function r(r){try{return t.getContext(r,e)}catch(t){return null}}return r(\\\"webgl\\\")||r(\\\"experimental-webgl\\\")||r(\\\"webgl-experimental\\\")}(a,t)}return o?{gl:o,canvas:a,container:i,extensions:l,optionalExtensions:c,pixelRatio:u,profile:f,onDone:h,onDestroy:p}:(p(),h(\\\"webgl not supported, try upgrading your browser or graphics drivers http://get.webgl.org\\\"),null)}function a(t,e){for(var r=Array(t),n=0;n<t;++n)r[n]=e(n);return r}function o(t){var e,r;return e=(65535<t)<<4,e|=r=(255<(t>>>=e))<<3,(e|=r=(15<(t>>>=r))<<2)|(r=(3<(t>>>=r))<<1)|t>>>r>>1}function s(){function t(t){t:{for(var e=16;268435456>=e;e*=16)if(t<=e){t=e;break t}t=0}return 0<(e=r[o(t)>>2]).length?e.pop():new ArrayBuffer(t)}function e(t){r[o(t.byteLength)>>2].push(t)}var r=a(8,function(){return[]});return{alloc:t,free:e,allocType:function(e,r){var n=null;switch(e){case 5120:n=new Int8Array(t(r),0,r);break;case 5121:n=new Uint8Array(t(r),0,r);break;case 5122:n=new Int16Array(t(2*r),0,r);break;case 5123:n=new Uint16Array(t(2*r),0,r);break;case 5124:n=new Int32Array(t(4*r),0,r);break;case 5125:n=new Uint32Array(t(4*r),0,r);break;case 5126:n=new Float32Array(t(4*r),0,r);break;default:return null}return n.length!==r?n.subarray(0,r):n},freeType:function(t){e(t.buffer)}}}function l(t){return!!t&&\\\"object\\\"==typeof t&&Array.isArray(t.shape)&&Array.isArray(t.stride)&&\\\"number\\\"==typeof t.offset&&t.shape.length===t.stride.length&&(Array.isArray(t.data)||W(t.data))}function c(t,e,r,n,i,a){for(var o=0;o<e;++o)for(var s=t[o],l=0;l<r;++l)for(var c=s[l],u=0;u<n;++u)i[a++]=c[u]}function u(t){return 0|$[Object.prototype.toString.call(t)]}function f(t,e){for(var r=0;r<e.length;++r)t[r]=e[r]}function h(t,e,r,n,i,a,o){for(var s=0,l=0;l<r;++l)for(var c=0;c<n;++c)t[s++]=e[i*l+a*c+o]}function p(t,e,r,n){function i(e){this.id=c++,this.buffer=t.createBuffer(),this.type=e,this.usage=35044,this.byteLength=0,this.dimension=1,this.dtype=5121,this.persistentData=null,r.profile&&(this.stats={size:0})}function a(e,r,n){e.byteLength=r.byteLength,t.bufferData(e.type,r,n)}function o(t,e,r,n,i,o){if(t.usage=r,Array.isArray(e)){if(t.dtype=n||5126,0<e.length)if(Array.isArray(e[0])){i=tt(e);for(var s=n=1;s<i.length;++s)n*=i[s];t.dimension=n,a(t,e=Q(e,i,t.dtype),r),o?t.persistentData=e:G.freeType(e)}else\\\"number\\\"==typeof e[0]?(t.dimension=i,f(i=G.allocType(t.dtype,e.length),e),a(t,i,r),o?t.persistentData=i:G.freeType(i)):W(e[0])&&(t.dimension=e[0].length,t.dtype=n||u(e[0])||5126,a(t,e=Q(e,[e.length,e[0].length],t.dtype),r),o?t.persistentData=e:G.freeType(e))}else if(W(e))t.dtype=n||u(e),t.dimension=i,a(t,e,r),o&&(t.persistentData=new Uint8Array(new Uint8Array(e.buffer)));else if(l(e)){i=e.shape;var c=e.stride,p=(s=e.offset,0),d=0,g=0,v=0;1===i.length?(p=i[0],d=1,g=c[0],v=0):2===i.length&&(p=i[0],d=i[1],g=c[0],v=c[1]),t.dtype=n||u(e.data)||5126,t.dimension=d,h(i=G.allocType(t.dtype,p*d),e.data,p,d,g,v,s),a(t,i,r),o?t.persistentData=i:G.freeType(i)}}function s(r){e.bufferCount--;for(var i=0;i<n.state.length;++i){var a=n.state[i];a.buffer===r&&(t.disableVertexAttribArray(i),a.buffer=null)}t.deleteBuffer(r.buffer),r.buffer=null,delete p[r.id]}var c=0,p={};i.prototype.bind=function(){t.bindBuffer(this.type,this.buffer)},i.prototype.destroy=function(){s(this)};var d=[];return r.profile&&(e.getTotalBufferSize=function(){var t=0;return Object.keys(p).forEach(function(e){t+=p[e].stats.size}),t}),{create:function(n,a,c,d){function g(e){var n=35044,i=null,a=0,s=0,c=1;return Array.isArray(e)||W(e)||l(e)?i=e:\\\"number\\\"==typeof e?a=0|e:e&&(\\\"data\\\"in e&&(i=e.data),\\\"usage\\\"in e&&(n=K[e.usage]),\\\"type\\\"in e&&(s=J[e.type]),\\\"dimension\\\"in e&&(c=0|e.dimension),\\\"length\\\"in e&&(a=0|e.length)),v.bind(),i?o(v,i,n,s,c,d):(a&&t.bufferData(v.type,a,n),v.dtype=s||5121,v.usage=n,v.dimension=c,v.byteLength=a),r.profile&&(v.stats.size=v.byteLength*et[v.dtype]),g}e.bufferCount++;var v=new i(a);return p[v.id]=v,c||g(n),g._reglType=\\\"buffer\\\",g._buffer=v,g.subdata=function(e,r){var n,i=0|(r||0);if(v.bind(),W(e))t.bufferSubData(v.type,i,e);else if(Array.isArray(e)){if(0<e.length)if(\\\"number\\\"==typeof e[0]){var a=G.allocType(v.dtype,e.length);f(a,e),t.bufferSubData(v.type,i,a),G.freeType(a)}else(Array.isArray(e[0])||W(e[0]))&&(n=tt(e),a=Q(e,n,v.dtype),t.bufferSubData(v.type,i,a),G.freeType(a))}else if(l(e)){n=e.shape;var o=e.stride,s=a=0,c=0,p=0;1===n.length?(a=n[0],s=1,c=o[0],p=0):2===n.length&&(a=n[0],s=n[1],c=o[0],p=o[1]),n=Array.isArray(e.data)?v.dtype:u(e.data),h(n=G.allocType(n,a*s),e.data,a,s,c,p,e.offset),t.bufferSubData(v.type,i,n),G.freeType(n)}return g},r.profile&&(g.stats=v.stats),g.destroy=function(){s(v)},g},createStream:function(t,e){var r=d.pop();return r||(r=new i(t)),r.bind(),o(r,e,35040,0,1,!1),r},destroyStream:function(t){d.push(t)},clear:function(){X(p).forEach(s),d.forEach(s)},getBuffer:function(t){return t&&t._buffer instanceof i?t._buffer:null},restore:function(){X(p).forEach(function(e){e.buffer=t.createBuffer(),t.bindBuffer(e.type,e.buffer),t.bufferData(e.type,e.persistentData||e.byteLength,e.usage)})},_initBuffer:o}}function d(t,e,r,n){function i(t){this.id=c++,s[this.id]=this,this.buffer=t,this.primType=4,this.type=this.vertCount=0}function a(n,i,a,o,s,c,u){if(n.buffer.bind(),i){var f=u;u||W(i)&&(!l(i)||W(i.data))||(f=e.oes_element_index_uint?5125:5123),r._initBuffer(n.buffer,i,a,f,3)}else t.bufferData(34963,c,a),n.buffer.dtype=f||5121,n.buffer.usage=a,n.buffer.dimension=3,n.buffer.byteLength=c;if(f=u,!u){switch(n.buffer.dtype){case 5121:case 5120:f=5121;break;case 5123:case 5122:f=5123;break;case 5125:case 5124:f=5125}n.buffer.dtype=f}n.type=f,0>(i=s)&&(i=n.buffer.byteLength,5123===f?i>>=1:5125===f&&(i>>=2)),n.vertCount=i,i=o,0>o&&(i=4,1===(o=n.buffer.dimension)&&(i=0),2===o&&(i=1),3===o&&(i=4)),n.primType=i}function o(t){n.elementsCount--,delete s[t.id],t.buffer.destroy(),t.buffer=null}var s={},c=0,u={uint8:5121,uint16:5123};e.oes_element_index_uint&&(u.uint32=5125),i.prototype.bind=function(){this.buffer.bind()};var f=[];return{create:function(t,e){function s(t){if(t)if(\\\"number\\\"==typeof t)c(t),f.primType=4,f.vertCount=0|t,f.type=5121;else{var e=null,r=35044,n=-1,i=-1,o=0,h=0;Array.isArray(t)||W(t)||l(t)?e=t:(\\\"data\\\"in t&&(e=t.data),\\\"usage\\\"in t&&(r=K[t.usage]),\\\"primitive\\\"in t&&(n=rt[t.primitive]),\\\"count\\\"in t&&(i=0|t.count),\\\"type\\\"in t&&(h=u[t.type]),\\\"length\\\"in t?o=0|t.length:(o=i,5123===h||5122===h?o*=2:5125!==h&&5124!==h||(o*=4))),a(f,e,r,n,i,o,h)}else c(),f.primType=4,f.vertCount=0,f.type=5121;return s}var c=r.create(null,34963,!0),f=new i(c._buffer);return n.elementsCount++,s(t),s._reglType=\\\"elements\\\",s._elements=f,s.subdata=function(t,e){return c.subdata(t,e),s},s.destroy=function(){o(f)},s},createStream:function(t){var e=f.pop();return e||(e=new i(r.create(null,34963,!0,!1)._buffer)),a(e,t,35040,-1,-1,0,0),e},destroyStream:function(t){f.push(t)},getElements:function(t){return\\\"function\\\"==typeof t&&t._elements instanceof i?t._elements:null},clear:function(){X(s).forEach(o)}}}function g(t){for(var e=G.allocType(5123,t.length),r=0;r<t.length;++r)if(isNaN(t[r]))e[r]=65535;else if(1/0===t[r])e[r]=31744;else if(-1/0===t[r])e[r]=64512;else{nt[0]=t[r];var n=(a=it[0])>>>31<<15,i=(a<<1>>>24)-127,a=a>>13&1023;e[r]=-24>i?n:-14>i?n+(a+1024>>-14-i):15<i?n+31744:n+(i+15<<10)+a}return e}function v(t){return Array.isArray(t)||W(t)}function m(t){return\\\"[object \\\"+t+\\\"]\\\"}function y(t){return Array.isArray(t)&&(0===t.length||\\\"number\\\"==typeof t[0])}function x(t){return!(!Array.isArray(t)||0===t.length||!v(t[0]))}function b(t){return Object.prototype.toString.call(t)}function _(t){if(!t)return!1;var e=b(t);return 0<=pt.indexOf(e)||(y(t)||x(t)||l(t))}function w(t,e){36193===t.type?(t.data=g(e),G.freeType(e)):t.data=e}function k(t,e,r,n,i,a){if(t=\\\"undefined\\\"!=typeof gt[t]?gt[t]:st[t]*dt[e],a&&(t*=6),i){for(n=0;1<=r;)n+=t*r*r,r/=2;return n}return t*r*n}function T(t,e,r,n,i,a,o){function s(){this.format=this.internalformat=6408,this.type=5121,this.flipY=this.premultiplyAlpha=this.compressed=!1,this.unpackAlignment=1,this.colorSpace=37444,this.channels=this.height=this.width=0}function c(t,e){t.internalformat=e.internalformat,t.format=e.format,t.type=e.type,t.compressed=e.compressed,t.premultiplyAlpha=e.premultiplyAlpha,t.flipY=e.flipY,t.unpackAlignment=e.unpackAlignment,t.colorSpace=e.colorSpace,t.width=e.width,t.height=e.height,t.channels=e.channels}function u(t,e){if(\\\"object\\\"==typeof e&&e){\\\"premultiplyAlpha\\\"in e&&(t.premultiplyAlpha=e.premultiplyAlpha),\\\"flipY\\\"in e&&(t.flipY=e.flipY),\\\"alignment\\\"in e&&(t.unpackAlignment=e.alignment),\\\"colorSpace\\\"in e&&(t.colorSpace=H[e.colorSpace]),\\\"type\\\"in e&&(t.type=q[e.type]);var r=t.width,n=t.height,i=t.channels,a=!1;\\\"shape\\\"in e?(r=e.shape[0],n=e.shape[1],3===e.shape.length&&(i=e.shape[2],a=!0)):(\\\"radius\\\"in e&&(r=n=e.radius),\\\"width\\\"in e&&(r=e.width),\\\"height\\\"in e&&(n=e.height),\\\"channels\\\"in e&&(i=e.channels,a=!0)),t.width=0|r,t.height=0|n,t.channels=0|i,r=!1,\\\"format\\\"in e&&(r=e.format,n=t.internalformat=Y[r],t.format=pt[n],r in q&&!(\\\"type\\\"in e)&&(t.type=q[r]),r in J&&(t.compressed=!0),r=!0),!a&&r?t.channels=st[t.format]:a&&!r&&t.channels!==ot[t.format]&&(t.format=t.internalformat=ot[t.channels])}}function f(e){t.pixelStorei(37440,e.flipY),t.pixelStorei(37441,e.premultiplyAlpha),t.pixelStorei(37443,e.colorSpace),t.pixelStorei(3317,e.unpackAlignment)}function h(){s.call(this),this.yOffset=this.xOffset=0,this.data=null,this.needsFree=!1,this.element=null,this.needsCopy=!1}function p(t,e){var r=null;if(_(e)?r=e:e&&(u(t,e),\\\"x\\\"in e&&(t.xOffset=0|e.x),\\\"y\\\"in e&&(t.yOffset=0|e.y),_(e.data)&&(r=e.data)),e.copy){var n=i.viewportWidth,a=i.viewportHeight;t.width=t.width||n-t.xOffset,t.height=t.height||a-t.yOffset,t.needsCopy=!0}else if(r){if(W(r))t.channels=t.channels||4,t.data=r,\\\"type\\\"in e||5121!==t.type||(t.type=0|$[Object.prototype.toString.call(r)]);else if(y(r)){switch(t.channels=t.channels||4,a=(n=r).length,t.type){case 5121:case 5123:case 5125:case 5126:(a=G.allocType(t.type,a)).set(n),t.data=a;break;case 36193:t.data=g(n)}t.alignment=1,t.needsFree=!0}else if(l(r)){n=r.data,Array.isArray(n)||5121!==t.type||(t.type=0|$[Object.prototype.toString.call(n)]);a=r.shape;var o,s,c,f,h=r.stride;3===a.length?(c=a[2],f=h[2]):f=c=1,o=a[0],s=a[1],a=h[0],h=h[1],t.alignment=1,t.width=o,t.height=s,t.channels=c,t.format=t.internalformat=ot[c],t.needsFree=!0,o=f,r=r.offset,c=t.width,f=t.height,s=t.channels;for(var p=G.allocType(36193===t.type?5126:t.type,c*f*s),d=0,m=0;m<f;++m)for(var k=0;k<c;++k)for(var T=0;T<s;++T)p[d++]=n[a*k+h*m+o*T+r];w(t,p)}else if(b(r)===lt||b(r)===ct)b(r)===lt?t.element=r:t.element=r.canvas,t.width=t.element.width,t.height=t.element.height,t.channels=4;else if(b(r)===ut)t.element=r,t.width=r.width,t.height=r.height,t.channels=4;else if(b(r)===ft)t.element=r,t.width=r.naturalWidth,t.height=r.naturalHeight,t.channels=4;else if(b(r)===ht)t.element=r,t.width=r.videoWidth,t.height=r.videoHeight,t.channels=4;else if(x(r)){for(n=t.width||r[0].length,a=t.height||r.length,h=t.channels,h=v(r[0][0])?h||r[0][0].length:h||1,o=Z.shape(r),c=1,f=0;f<o.length;++f)c*=o[f];c=G.allocType(36193===t.type?5126:t.type,c),Z.flatten(r,o,\\\"\\\",c),w(t,c),t.alignment=1,t.width=n,t.height=a,t.channels=h,t.format=t.internalformat=ot[h],t.needsFree=!0}}else t.width=t.width||1,t.height=t.height||1,t.channels=t.channels||4}function d(e,r,i,a,o){var s=e.element,l=e.data,c=e.internalformat,u=e.format,h=e.type,p=e.width,d=e.height;f(e),s?t.texSubImage2D(r,o,i,a,u,h,s):e.compressed?t.compressedTexSubImage2D(r,o,i,a,c,p,d,l):e.needsCopy?(n(),t.copyTexSubImage2D(r,o,i,a,e.xOffset,e.yOffset,p,d)):t.texSubImage2D(r,o,i,a,p,d,u,h,l)}function m(){return dt.pop()||new h}function T(t){t.needsFree&&G.freeType(t.data),h.call(t),dt.push(t)}function A(){s.call(this),this.genMipmaps=!1,this.mipmapHint=4352,this.mipmask=0,this.images=Array(16)}function M(t,e,r){var n=t.images[0]=m();t.mipmask=1,n.width=t.width=e,n.height=t.height=r,n.channels=t.channels=4}function S(t,e){var r=null;if(_(e))c(r=t.images[0]=m(),t),p(r,e),t.mipmask=1;else if(u(t,e),Array.isArray(e.mipmap))for(var n=e.mipmap,i=0;i<n.length;++i)c(r=t.images[i]=m(),t),r.width>>=i,r.height>>=i,p(r,n[i]),t.mipmask|=1<<i;else c(r=t.images[0]=m(),t),p(r,e),t.mipmask=1;c(t,t.images[0])}function E(e,r){for(var i=e.images,a=0;a<i.length&&i[a];++a){var o=i[a],s=r,l=a,c=o.element,u=o.data,h=o.internalformat,p=o.format,d=o.type,g=o.width,v=o.height,m=o.channels;f(o),c?t.texImage2D(s,l,p,p,d,c):o.compressed?t.compressedTexImage2D(s,l,h,g,v,0,u):o.needsCopy?(n(),t.copyTexImage2D(s,l,p,o.xOffset,o.yOffset,g,v,0)):((o=!u)&&(u=G.zero.allocType(d,g*v*m)),t.texImage2D(s,l,p,g,v,0,p,d,u),o&&u&&G.zero.freeType(u))}}function C(){var t=gt.pop()||new A;s.call(t);for(var e=t.mipmask=0;16>e;++e)t.images[e]=null;return t}function L(t){for(var e=t.images,r=0;r<e.length;++r)e[r]&&T(e[r]),e[r]=null;gt.push(t)}function z(){this.magFilter=this.minFilter=9728,this.wrapT=this.wrapS=33071,this.anisotropic=1,this.genMipmaps=!1,this.mipmapHint=4352}function O(t,e){\\\"min\\\"in e&&(t.minFilter=U[e.min],0<=at.indexOf(t.minFilter)&&!(\\\"faces\\\"in e)&&(t.genMipmaps=!0)),\\\"mag\\\"in e&&(t.magFilter=V[e.mag]);var r=t.wrapS,n=t.wrapT;if(\\\"wrap\\\"in e){var i=e.wrap;\\\"string\\\"==typeof i?r=n=N[i]:Array.isArray(i)&&(r=N[i[0]],n=N[i[1]])}else\\\"wrapS\\\"in e&&(r=N[e.wrapS]),\\\"wrapT\\\"in e&&(n=N[e.wrapT]);if(t.wrapS=r,t.wrapT=n,\\\"anisotropic\\\"in e&&(t.anisotropic=e.anisotropic),\\\"mipmap\\\"in e){switch(r=!1,typeof e.mipmap){case\\\"string\\\":t.mipmapHint=B[e.mipmap],r=t.genMipmaps=!0;break;case\\\"boolean\\\":r=t.genMipmaps=e.mipmap;break;case\\\"object\\\":t.genMipmaps=!1,r=!0}!r||\\\"min\\\"in e||(t.minFilter=9984)}}function I(r,n){t.texParameteri(n,10241,r.minFilter),t.texParameteri(n,10240,r.magFilter),t.texParameteri(n,10242,r.wrapS),t.texParameteri(n,10243,r.wrapT),e.ext_texture_filter_anisotropic&&t.texParameteri(n,34046,r.anisotropic),r.genMipmaps&&(t.hint(33170,r.mipmapHint),t.generateMipmap(n))}function D(e){s.call(this),this.mipmask=0,this.internalformat=6408,this.id=vt++,this.refCount=1,this.target=e,this.texture=t.createTexture(),this.unit=-1,this.bindCount=0,this.texInfo=new z,o.profile&&(this.stats={size:0})}function P(e){t.activeTexture(33984),t.bindTexture(e.target,e.texture)}function R(){var e=xt[0];e?t.bindTexture(e.target,e.texture):t.bindTexture(3553,null)}function F(e){var r=e.texture,n=e.unit,i=e.target;0<=n&&(t.activeTexture(33984+n),t.bindTexture(i,null),xt[n]=null),t.deleteTexture(r),e.texture=null,e.params=null,e.pixels=null,e.refCount=0,delete mt[e.id],a.textureCount--}var B={\\\"don't care\\\":4352,\\\"dont care\\\":4352,nice:4354,fast:4353},N={repeat:10497,clamp:33071,mirror:33648},V={nearest:9728,linear:9729},U=j({mipmap:9987,\\\"nearest mipmap nearest\\\":9984,\\\"linear mipmap nearest\\\":9985,\\\"nearest mipmap linear\\\":9986,\\\"linear mipmap linear\\\":9987},V),H={none:0,browser:37444},q={uint8:5121,rgba4:32819,rgb565:33635,\\\"rgb5 a1\\\":32820},Y={alpha:6406,luminance:6409,\\\"luminance alpha\\\":6410,rgb:6407,rgba:6408,rgba4:32854,\\\"rgb5 a1\\\":32855,rgb565:36194},J={};e.ext_srgb&&(Y.srgb=35904,Y.srgba=35906),e.oes_texture_float&&(q.float32=q.float=5126),e.oes_texture_half_float&&(q.float16=q[\\\"half float\\\"]=36193),e.webgl_depth_texture&&(j(Y,{depth:6402,\\\"depth stencil\\\":34041}),j(q,{uint16:5123,uint32:5125,\\\"depth stencil\\\":34042})),e.webgl_compressed_texture_s3tc&&j(J,{\\\"rgb s3tc dxt1\\\":33776,\\\"rgba s3tc dxt1\\\":33777,\\\"rgba s3tc dxt3\\\":33778,\\\"rgba s3tc dxt5\\\":33779}),e.webgl_compressed_texture_atc&&j(J,{\\\"rgb atc\\\":35986,\\\"rgba atc explicit alpha\\\":35987,\\\"rgba atc interpolated alpha\\\":34798}),e.webgl_compressed_texture_pvrtc&&j(J,{\\\"rgb pvrtc 4bppv1\\\":35840,\\\"rgb pvrtc 2bppv1\\\":35841,\\\"rgba pvrtc 4bppv1\\\":35842,\\\"rgba pvrtc 2bppv1\\\":35843}),e.webgl_compressed_texture_etc1&&(J[\\\"rgb etc1\\\"]=36196);var K=Array.prototype.slice.call(t.getParameter(34467));Object.keys(J).forEach(function(t){var e=J[t];0<=K.indexOf(e)&&(Y[t]=e)});var Q=Object.keys(Y);r.textureFormats=Q;var tt=[];Object.keys(Y).forEach(function(t){tt[Y[t]]=t});var et=[];Object.keys(q).forEach(function(t){et[q[t]]=t});var rt=[];Object.keys(V).forEach(function(t){rt[V[t]]=t});var nt=[];Object.keys(U).forEach(function(t){nt[U[t]]=t});var it=[];Object.keys(N).forEach(function(t){it[N[t]]=t});var pt=Q.reduce(function(t,e){var r=Y[e];return 6409===r||6406===r||6409===r||6410===r||6402===r||34041===r?t[r]=r:32855===r||0<=e.indexOf(\\\"rgba\\\")?t[r]=6408:t[r]=6407,t},{}),dt=[],gt=[],vt=0,mt={},yt=r.maxTextureUnits,xt=Array(yt).map(function(){return null});return j(D.prototype,{bind:function(){this.bindCount+=1;var e=this.unit;if(0>e){for(var r=0;r<yt;++r){var n=xt[r];if(n){if(0<n.bindCount)continue;n.unit=-1}xt[r]=this,e=r;break}o.profile&&a.maxTextureUnits<e+1&&(a.maxTextureUnits=e+1),this.unit=e,t.activeTexture(33984+e),t.bindTexture(this.target,this.texture)}return e},unbind:function(){--this.bindCount},decRef:function(){0>=--this.refCount&&F(this)}}),o.profile&&(a.getTotalTextureSize=function(){var t=0;return Object.keys(mt).forEach(function(e){t+=mt[e].stats.size}),t}),{create2D:function(e,r){function n(t,e){var r=i.texInfo;z.call(r);var a=C();return\\\"number\\\"==typeof t?M(a,0|t,\\\"number\\\"==typeof e?0|e:0|t):t?(O(r,t),S(a,t)):M(a,1,1),r.genMipmaps&&(a.mipmask=(a.width<<1)-1),i.mipmask=a.mipmask,c(i,a),i.internalformat=a.internalformat,n.width=a.width,n.height=a.height,P(i),E(a,3553),I(r,3553),R(),L(a),o.profile&&(i.stats.size=k(i.internalformat,i.type,a.width,a.height,r.genMipmaps,!1)),n.format=tt[i.internalformat],n.type=et[i.type],n.mag=rt[r.magFilter],n.min=nt[r.minFilter],n.wrapS=it[r.wrapS],n.wrapT=it[r.wrapT],n}var i=new D(3553);return mt[i.id]=i,a.textureCount++,n(e,r),n.subimage=function(t,e,r,a){e|=0,r|=0,a|=0;var o=m();return c(o,i),o.width=0,o.height=0,p(o,t),o.width=o.width||(i.width>>a)-e,o.height=o.height||(i.height>>a)-r,P(i),d(o,3553,e,r,a),R(),T(o),n},n.resize=function(e,r){var a=0|e,s=0|r||a;if(a===i.width&&s===i.height)return n;n.width=i.width=a,n.height=i.height=s,P(i);for(var l,c=i.channels,u=i.type,f=0;i.mipmask>>f;++f){var h=a>>f,p=s>>f;if(!h||!p)break;l=G.zero.allocType(u,h*p*c),t.texImage2D(3553,f,i.format,h,p,0,i.format,i.type,l),l&&G.zero.freeType(l)}return R(),o.profile&&(i.stats.size=k(i.internalformat,i.type,a,s,!1,!1)),n},n._reglType=\\\"texture2d\\\",n._texture=i,o.profile&&(n.stats=i.stats),n.destroy=function(){i.decRef()},n},createCube:function(e,r,n,i,s,l){function f(t,e,r,n,i,a){var s,l=h.texInfo;for(z.call(l),s=0;6>s;++s)g[s]=C();if(\\\"number\\\"!=typeof t&&t){if(\\\"object\\\"==typeof t)if(e)S(g[0],t),S(g[1],e),S(g[2],r),S(g[3],n),S(g[4],i),S(g[5],a);else if(O(l,t),u(h,t),\\\"faces\\\"in t)for(t=t.faces,s=0;6>s;++s)c(g[s],h),S(g[s],t[s]);else for(s=0;6>s;++s)S(g[s],t)}else for(t=0|t||1,s=0;6>s;++s)M(g[s],t,t);for(c(h,g[0]),h.mipmask=l.genMipmaps?(g[0].width<<1)-1:g[0].mipmask,h.internalformat=g[0].internalformat,f.width=g[0].width,f.height=g[0].height,P(h),s=0;6>s;++s)E(g[s],34069+s);for(I(l,34067),R(),o.profile&&(h.stats.size=k(h.internalformat,h.type,f.width,f.height,l.genMipmaps,!0)),f.format=tt[h.internalformat],f.type=et[h.type],f.mag=rt[l.magFilter],f.min=nt[l.minFilter],f.wrapS=it[l.wrapS],f.wrapT=it[l.wrapT],s=0;6>s;++s)L(g[s]);return f}var h=new D(34067);mt[h.id]=h,a.cubeCount++;var g=Array(6);return f(e,r,n,i,s,l),f.subimage=function(t,e,r,n,i){r|=0,n|=0,i|=0;var a=m();return c(a,h),a.width=0,a.height=0,p(a,e),a.width=a.width||(h.width>>i)-r,a.height=a.height||(h.height>>i)-n,P(h),d(a,34069+t,r,n,i),R(),T(a),f},f.resize=function(e){if((e|=0)!==h.width){f.width=h.width=e,f.height=h.height=e,P(h);for(var r=0;6>r;++r)for(var n=0;h.mipmask>>n;++n)t.texImage2D(34069+r,n,h.format,e>>n,e>>n,0,h.format,h.type,null);return R(),o.profile&&(h.stats.size=k(h.internalformat,h.type,f.width,f.height,!1,!0)),f}},f._reglType=\\\"textureCube\\\",f._texture=h,o.profile&&(f.stats=h.stats),f.destroy=function(){h.decRef()},f},clear:function(){for(var e=0;e<yt;++e)t.activeTexture(33984+e),t.bindTexture(3553,null),xt[e]=null;X(mt).forEach(F),a.cubeCount=0,a.textureCount=0},getTexture:function(t){return null},restore:function(){for(var e=0;e<yt;++e){var r=xt[e];r&&(r.bindCount=0,r.unit=-1,xt[e]=null)}X(mt).forEach(function(e){e.texture=t.createTexture(),t.bindTexture(e.target,e.texture);for(var r=0;32>r;++r)if(0!=(e.mipmask&1<<r))if(3553===e.target)t.texImage2D(3553,r,e.internalformat,e.width>>r,e.height>>r,0,e.internalformat,e.type,null);else for(var n=0;6>n;++n)t.texImage2D(34069+n,r,e.internalformat,e.width>>r,e.height>>r,0,e.internalformat,e.type,null);I(e.texInfo,e.target)})}}}function A(t,e,r,n,i,a){function o(t,e,r){this.target=t,this.texture=e,this.renderbuffer=r;var n=t=0;e?(t=e.width,n=e.height):r&&(t=r.width,n=r.height),this.width=t,this.height=n}function s(t){t&&(t.texture&&t.texture._texture.decRef(),t.renderbuffer&&t.renderbuffer._renderbuffer.decRef())}function l(t,e,r){t&&(t.texture?t.texture._texture.refCount+=1:t.renderbuffer._renderbuffer.refCount+=1)}function c(e,r){r&&(r.texture?t.framebufferTexture2D(36160,e,r.target,r.texture._texture.texture,0):t.framebufferRenderbuffer(36160,e,36161,r.renderbuffer._renderbuffer.renderbuffer))}function u(t){var e=3553,r=null,n=null,i=t;return\\\"object\\\"==typeof t&&(i=t.data,\\\"target\\\"in t&&(e=0|t.target)),\\\"texture2d\\\"===(t=i._reglType)?r=i:\\\"textureCube\\\"===t?r=i:\\\"renderbuffer\\\"===t&&(n=i,e=36161),new o(e,r,n)}function f(t,e,r,a,s){return r?((t=n.create2D({width:t,height:e,format:a,type:s}))._texture.refCount=0,new o(3553,t,null)):((t=i.create({width:t,height:e,format:a}))._renderbuffer.refCount=0,new o(36161,null,t))}function h(t){return t&&(t.texture||t.renderbuffer)}function p(t,e,r){t&&(t.texture?t.texture.resize(e,r):t.renderbuffer&&t.renderbuffer.resize(e,r),t.width=e,t.height=r)}function d(){this.id=k++,T[this.id]=this,this.framebuffer=t.createFramebuffer(),this.height=this.width=0,this.colorAttachments=[],this.depthStencilAttachment=this.stencilAttachment=this.depthAttachment=null}function g(t){t.colorAttachments.forEach(s),s(t.depthAttachment),s(t.stencilAttachment),s(t.depthStencilAttachment)}function v(e){t.deleteFramebuffer(e.framebuffer),e.framebuffer=null,a.framebufferCount--,delete T[e.id]}function m(e){var n;t.bindFramebuffer(36160,e.framebuffer);var i=e.colorAttachments;for(n=0;n<i.length;++n)c(36064+n,i[n]);for(n=i.length;n<r.maxColorAttachments;++n)t.framebufferTexture2D(36160,36064+n,3553,null,0);t.framebufferTexture2D(36160,33306,3553,null,0),t.framebufferTexture2D(36160,36096,3553,null,0),t.framebufferTexture2D(36160,36128,3553,null,0),c(36096,e.depthAttachment),c(36128,e.stencilAttachment),c(33306,e.depthStencilAttachment),t.checkFramebufferStatus(36160),t.isContextLost(),t.bindFramebuffer(36160,x.next?x.next.framebuffer:null),x.cur=x.next,t.getError()}function y(t,e){function r(t,e){var i,a=0,o=0,s=!0,c=!0;i=null;var p=!0,d=\\\"rgba\\\",v=\\\"uint8\\\",y=1,x=null,w=null,k=null,T=!1;\\\"number\\\"==typeof t?(a=0|t,o=0|e||a):t?(\\\"shape\\\"in t?(a=(o=t.shape)[0],o=o[1]):(\\\"radius\\\"in t&&(a=o=t.radius),\\\"width\\\"in t&&(a=t.width),\\\"height\\\"in t&&(o=t.height)),(\\\"color\\\"in t||\\\"colors\\\"in t)&&(i=t.color||t.colors,Array.isArray(i)),i||(\\\"colorCount\\\"in t&&(y=0|t.colorCount),\\\"colorTexture\\\"in t&&(p=!!t.colorTexture,d=\\\"rgba4\\\"),\\\"colorType\\\"in t&&(v=t.colorType,!p)&&(\\\"half float\\\"===v||\\\"float16\\\"===v?d=\\\"rgba16f\\\":\\\"float\\\"!==v&&\\\"float32\\\"!==v||(d=\\\"rgba32f\\\")),\\\"colorFormat\\\"in t&&(d=t.colorFormat,0<=b.indexOf(d)?p=!0:0<=_.indexOf(d)&&(p=!1))),(\\\"depthTexture\\\"in t||\\\"depthStencilTexture\\\"in t)&&(T=!(!t.depthTexture&&!t.depthStencilTexture)),\\\"depth\\\"in t&&(\\\"boolean\\\"==typeof t.depth?s=t.depth:(x=t.depth,c=!1)),\\\"stencil\\\"in t&&(\\\"boolean\\\"==typeof t.stencil?c=t.stencil:(w=t.stencil,s=!1)),\\\"depthStencil\\\"in t&&(\\\"boolean\\\"==typeof t.depthStencil?s=c=t.depthStencil:(k=t.depthStencil,c=s=!1))):a=o=1;var A=null,M=null,S=null,E=null;if(Array.isArray(i))A=i.map(u);else if(i)A=[u(i)];else for(A=Array(y),i=0;i<y;++i)A[i]=f(a,o,p,d,v);for(a=a||A[0].width,o=o||A[0].height,x?M=u(x):s&&!c&&(M=f(a,o,T,\\\"depth\\\",\\\"uint32\\\")),w?S=u(w):c&&!s&&(S=f(a,o,!1,\\\"stencil\\\",\\\"uint8\\\")),k?E=u(k):!x&&!w&&c&&s&&(E=f(a,o,T,\\\"depth stencil\\\",\\\"depth stencil\\\")),s=null,i=0;i<A.length;++i)l(A[i]),A[i]&&A[i].texture&&(c=yt[A[i].texture._texture.format]*xt[A[i].texture._texture.type],null===s&&(s=c));return l(M),l(S),l(E),g(n),n.width=a,n.height=o,n.colorAttachments=A,n.depthAttachment=M,n.stencilAttachment=S,n.depthStencilAttachment=E,r.color=A.map(h),r.depth=h(M),r.stencil=h(S),r.depthStencil=h(E),r.width=n.width,r.height=n.height,m(n),r}var n=new d;return a.framebufferCount++,r(t,e),j(r,{resize:function(t,e){var i=Math.max(0|t,1),a=Math.max(0|e||i,1);if(i===n.width&&a===n.height)return r;for(var o=n.colorAttachments,s=0;s<o.length;++s)p(o[s],i,a);return p(n.depthAttachment,i,a),p(n.stencilAttachment,i,a),p(n.depthStencilAttachment,i,a),n.width=r.width=i,n.height=r.height=a,m(n),r},_reglType:\\\"framebuffer\\\",_framebuffer:n,destroy:function(){v(n),g(n)},use:function(t){x.setFBO({framebuffer:r},t)}})}var x={cur:null,next:null,dirty:!1,setFBO:null},b=[\\\"rgba\\\"],_=[\\\"rgba4\\\",\\\"rgb565\\\",\\\"rgb5 a1\\\"];e.ext_srgb&&_.push(\\\"srgba\\\"),e.ext_color_buffer_half_float&&_.push(\\\"rgba16f\\\",\\\"rgb16f\\\"),e.webgl_color_buffer_float&&_.push(\\\"rgba32f\\\");var w=[\\\"uint8\\\"];e.oes_texture_half_float&&w.push(\\\"half float\\\",\\\"float16\\\"),e.oes_texture_float&&w.push(\\\"float\\\",\\\"float32\\\");var k=0,T={};return j(x,{getFramebuffer:function(t){return\\\"function\\\"==typeof t&&\\\"framebuffer\\\"===t._reglType&&(t=t._framebuffer)instanceof d?t:null},create:y,createCube:function(t){function e(t){var i,a={color:null},o=0,s=null;i=\\\"rgba\\\";var l=\\\"uint8\\\",c=1;if(\\\"number\\\"==typeof t?o=0|t:t?(\\\"shape\\\"in t?o=t.shape[0]:(\\\"radius\\\"in t&&(o=0|t.radius),\\\"width\\\"in t?o=0|t.width:\\\"height\\\"in t&&(o=0|t.height)),(\\\"color\\\"in t||\\\"colors\\\"in t)&&(s=t.color||t.colors,Array.isArray(s)),s||(\\\"colorCount\\\"in t&&(c=0|t.colorCount),\\\"colorType\\\"in t&&(l=t.colorType),\\\"colorFormat\\\"in t&&(i=t.colorFormat)),\\\"depth\\\"in t&&(a.depth=t.depth),\\\"stencil\\\"in t&&(a.stencil=t.stencil),\\\"depthStencil\\\"in t&&(a.depthStencil=t.depthStencil)):o=1,s)if(Array.isArray(s))for(t=[],i=0;i<s.length;++i)t[i]=s[i];else t=[s];else for(t=Array(c),s={radius:o,format:i,type:l},i=0;i<c;++i)t[i]=n.createCube(s);for(a.color=Array(t.length),i=0;i<t.length;++i)c=t[i],o=o||c.width,a.color[i]={target:34069,data:t[i]};for(i=0;6>i;++i){for(c=0;c<t.length;++c)a.color[c].target=34069+i;0<i&&(a.depth=r[0].depth,a.stencil=r[0].stencil,a.depthStencil=r[0].depthStencil),r[i]?r[i](a):r[i]=y(a)}return j(e,{width:o,height:o,color:t})}var r=Array(6);return e(t),j(e,{faces:r,resize:function(t){var n=0|t;if(n===e.width)return e;var i=e.color;for(t=0;t<i.length;++t)i[t].resize(n);for(t=0;6>t;++t)r[t].resize(n);return e.width=e.height=n,e},_reglType:\\\"framebufferCube\\\",destroy:function(){r.forEach(function(t){t.destroy()})}})},clear:function(){X(T).forEach(v)},restore:function(){x.cur=null,x.next=null,x.dirty=!0,X(T).forEach(function(e){e.framebuffer=t.createFramebuffer(),m(e)})}})}function M(){this.w=this.z=this.y=this.x=this.state=0,this.buffer=null,this.size=0,this.normalized=!1,this.type=5126,this.divisor=this.stride=this.offset=0}function S(t,e,r,n){function i(t,e,r,n){this.name=t,this.id=e,this.location=r,this.info=n}function a(t,e){for(var r=0;r<t.length;++r)if(t[r].id===e.id)return void(t[r].location=e.location);t.push(e)}function o(r,n,i){if(!(o=(i=35632===r?c:u)[n])){var a=e.str(n),o=t.createShader(r);t.shaderSource(o,a),t.compileShader(o),i[n]=o}return o}function s(t,e){this.id=p++,this.fragId=t,this.vertId=e,this.program=null,this.uniforms=[],this.attributes=[],n.profile&&(this.stats={uniformsCount:0,attributesCount:0})}function l(r,s){var l,c;l=o(35632,r.fragId),c=o(35633,r.vertId);var u=r.program=t.createProgram();t.attachShader(u,l),t.attachShader(u,c),t.linkProgram(u);var f=t.getProgramParameter(u,35718);n.profile&&(r.stats.uniformsCount=f);var h=r.uniforms;for(l=0;l<f;++l)if(c=t.getActiveUniform(u,l))if(1<c.size)for(var p=0;p<c.size;++p){var d=c.name.replace(\\\"[0]\\\",\\\"[\\\"+p+\\\"]\\\");a(h,new i(d,e.id(d),t.getUniformLocation(u,d),c))}else a(h,new i(c.name,e.id(c.name),t.getUniformLocation(u,c.name),c));for(f=t.getProgramParameter(u,35721),n.profile&&(r.stats.attributesCount=f),h=r.attributes,l=0;l<f;++l)(c=t.getActiveAttrib(u,l))&&a(h,new i(c.name,e.id(c.name),t.getAttribLocation(u,c.name),c))}var c={},u={},f={},h=[],p=0;return n.profile&&(r.getMaxUniformsCount=function(){var t=0;return h.forEach(function(e){e.stats.uniformsCount>t&&(t=e.stats.uniformsCount)}),t},r.getMaxAttributesCount=function(){var t=0;return h.forEach(function(e){e.stats.attributesCount>t&&(t=e.stats.attributesCount)}),t}),{clear:function(){var e=t.deleteShader.bind(t);X(c).forEach(e),c={},X(u).forEach(e),u={},h.forEach(function(e){t.deleteProgram(e.program)}),h.length=0,f={},r.shaderCount=0},program:function(t,e,n){var i=f[e];i||(i=f[e]={});var a=i[t];return a||(a=new s(e,t),r.shaderCount++,l(a),i[t]=a,h.push(a)),a},restore:function(){c={},u={};for(var t=0;t<h.length;++t)l(h[t])},shader:o,frag:-1,vert:-1}}function E(t,e,r,n,i,a,o){function s(i){var a;a=null===e.next?5121:e.next.colorAttachments[0].texture._texture.type;var o=0,s=0,l=n.framebufferWidth,c=n.framebufferHeight,u=null;return W(i)?u=i:i&&(o=0|i.x,s=0|i.y,l=0|(i.width||n.framebufferWidth-o),c=0|(i.height||n.framebufferHeight-s),u=i.data||null),r(),i=l*c*4,u||(5121===a?u=new Uint8Array(i):5126===a&&(u=u||new Float32Array(i))),t.pixelStorei(3333,4),t.readPixels(o,s,l,c,6408,a,u),u}return function(t){return t&&\\\"framebuffer\\\"in t?function(t){var r;return e.setFBO({framebuffer:t.framebuffer},function(){r=s(t)}),r}(t):s(t)}}function C(t){return Array.prototype.slice.call(t)}function L(t){return C(t).join(\\\"\\\")}function z(){function t(){var t=[],e=[];return j(function(){t.push.apply(t,C(arguments))},{def:function(){var n=\\\"v\\\"+r++;return e.push(n),0<arguments.length&&(t.push(n,\\\"=\\\"),t.push.apply(t,C(arguments)),t.push(\\\";\\\")),n},toString:function(){return L([0<e.length?\\\"var \\\"+e+\\\";\\\":\\\"\\\",L(t)])}})}function e(){function e(t,e){n(t,e,\\\"=\\\",r.def(t,e),\\\";\\\")}var r=t(),n=t(),i=r.toString,a=n.toString;return j(function(){r.apply(r,C(arguments))},{def:r.def,entry:r,exit:n,save:e,set:function(t,n,i){e(t,n),r(t,n,\\\"=\\\",i,\\\";\\\")},toString:function(){return i()+a()}})}var r=0,n=[],i=[],a=t(),o={};return{global:a,link:function(t){for(var e=0;e<i.length;++e)if(i[e]===t)return n[e];return e=\\\"g\\\"+r++,n.push(e),i.push(t),e},block:t,proc:function(t,r){function n(){var t=\\\"a\\\"+i.length;return i.push(t),t}var i=[];r=r||0;for(var a=0;a<r;++a)n();var s=(a=e()).toString;return o[t]=j(a,{arg:n,toString:function(){return L([\\\"function(\\\",i.join(),\\\"){\\\",s(),\\\"}\\\"])}})},scope:e,cond:function(){var t=L(arguments),r=e(),n=e(),i=r.toString,a=n.toString;return j(r,{then:function(){return r.apply(r,C(arguments)),this},else:function(){return n.apply(n,C(arguments)),this},toString:function(){var e=a();return e&&(e=\\\"else{\\\"+e+\\\"}\\\"),L([\\\"if(\\\",t,\\\"){\\\",i(),\\\"}\\\",e])}})},compile:function(){var t=['\\\"use strict\\\";',a,\\\"return {\\\"];Object.keys(o).forEach(function(e){t.push('\\\"',e,'\\\":',o[e].toString(),\\\",\\\")}),t.push(\\\"}\\\");var e=L(t).replace(/;/g,\\\";\\\\n\\\").replace(/}/g,\\\"}\\\\n\\\").replace(/{/g,\\\"{\\\\n\\\");return Function.apply(null,n.concat(e)).apply(null,i)}}}function O(t){return Array.isArray(t)||W(t)||l(t)}function I(t){return t.sort(function(t,e){return\\\"viewport\\\"===t?-1:\\\"viewport\\\"===e?1:t<e?-1:1})}function D(t,e,r,n){this.thisDep=t,this.contextDep=e,this.propDep=r,this.append=n}function P(t){return t&&!(t.thisDep||t.contextDep||t.propDep)}function R(t){return new D(!1,!1,!1,t)}function F(t,e){var r=t.type;return 0===r?new D(!0,1<=(r=t.data.length),2<=r,e):4===r?new D((r=t.data).thisDep,r.contextDep,r.propDep,e):new D(3===r,2===r,1===r,e)}function B(t,e,r,n,i,o,s,l,c,u,f,h,p,d,g){function m(t){return t.replace(\\\".\\\",\\\"_\\\")}function y(t,e,r){var n=m(t);nt.push(t),et[n]=tt[n]=!!r,it[n]=e}function x(t,e,r){var n=m(t);nt.push(t),Array.isArray(r)?(tt[n]=r.slice(),et[n]=r.slice()):tt[n]=et[n]=r,at[n]=e}function b(){var t=z(),r=t.link,n=t.global;t.id=lt++,t.batchId=\\\"0\\\";var i=r(ot),a=t.shared={props:\\\"a0\\\"};Object.keys(ot).forEach(function(t){a[t]=n.def(i,\\\".\\\",t)});var o=t.next={},s=t.current={};Object.keys(at).forEach(function(t){Array.isArray(tt[t])&&(o[t]=n.def(a.next,\\\".\\\",t),s[t]=n.def(a.current,\\\".\\\",t))});var l=t.constants={};Object.keys(st).forEach(function(t){l[t]=n.def(JSON.stringify(st[t]))}),t.invoke=function(e,n){switch(n.type){case 0:var i=[\\\"this\\\",a.context,a.props,t.batchId];return e.def(r(n.data),\\\".call(\\\",i.slice(0,Math.max(n.data.length+1,4)),\\\")\\\");case 1:return e.def(a.props,n.data);case 2:return e.def(a.context,n.data);case 3:return e.def(\\\"this\\\",n.data);case 4:return n.data.append(t,e),n.data.ref}},t.attribCache={};var c={};return t.scopeAttrib=function(t){if((t=e.id(t))in c)return c[t];var n=u.scope[t];return n||(n=u.scope[t]=new Z),c[t]=r(n)},t}function _(t,e){var r=t.static,n=t.dynamic;if(\\\"framebuffer\\\"in r){var i=r.framebuffer;return i?(i=l.getFramebuffer(i),R(function(t,e){var r=t.link(i),n=t.shared;return e.set(n.framebuffer,\\\".next\\\",r),n=n.context,e.set(n,\\\".framebufferWidth\\\",r+\\\".width\\\"),e.set(n,\\\".framebufferHeight\\\",r+\\\".height\\\"),r})):R(function(t,e){var r=t.shared;return e.set(r.framebuffer,\\\".next\\\",\\\"null\\\"),r=r.context,e.set(r,\\\".framebufferWidth\\\",r+\\\".drawingBufferWidth\\\"),e.set(r,\\\".framebufferHeight\\\",r+\\\".drawingBufferHeight\\\"),\\\"null\\\"})}if(\\\"framebuffer\\\"in n){var a=n.framebuffer;return F(a,function(t,e){var r=t.invoke(e,a),n=t.shared,i=n.framebuffer;r=e.def(i,\\\".getFramebuffer(\\\",r,\\\")\\\");return e.set(i,\\\".next\\\",r),n=n.context,e.set(n,\\\".framebufferWidth\\\",r+\\\"?\\\"+r+\\\".width:\\\"+n+\\\".drawingBufferWidth\\\"),e.set(n,\\\".framebufferHeight\\\",r+\\\"?\\\"+r+\\\".height:\\\"+n+\\\".drawingBufferHeight\\\"),r})}return null}function w(t){function r(t){if(t in n){var r=e.id(n[t]);return(t=R(function(){return r})).id=r,t}if(t in i){var a=i[t];return F(a,function(t,e){var r=t.invoke(e,a);return e.def(t.shared.strings,\\\".id(\\\",r,\\\")\\\")})}return null}var n=t.static,i=t.dynamic,a=r(\\\"frag\\\"),o=r(\\\"vert\\\"),s=null;return P(a)&&P(o)?(s=f.program(o.id,a.id),t=R(function(t,e){return t.link(s)})):t=new D(a&&a.thisDep||o&&o.thisDep,a&&a.contextDep||o&&o.contextDep,a&&a.propDep||o&&o.propDep,function(t,e){var r,n,i=t.shared.shader;return r=a?a.append(t,e):e.def(i,\\\".\\\",\\\"frag\\\"),n=o?o.append(t,e):e.def(i,\\\".\\\",\\\"vert\\\"),e.def(i+\\\".program(\\\"+n+\\\",\\\"+r+\\\")\\\")}),{frag:a,vert:o,progVar:t,program:s}}function k(t,e){function r(t,e){if(t in n){var r=0|n[t];return R(function(t,n){return e&&(t.OFFSET=r),r})}if(t in i){var o=i[t];return F(o,function(t,r){var n=t.invoke(r,o);return e&&(t.OFFSET=n),n})}return e&&a?R(function(t,e){return t.OFFSET=\\\"0\\\",0}):null}var n=t.static,i=t.dynamic,a=function(){if(\\\"elements\\\"in n){var t=n.elements;O(t)?t=o.getElements(o.create(t,!0)):t&&(t=o.getElements(t));var e=R(function(e,r){if(t){var n=e.link(t);return e.ELEMENTS=n}return e.ELEMENTS=null});return e.value=t,e}if(\\\"elements\\\"in i){var r=i.elements;return F(r,function(t,e){var n=(i=t.shared).isBufferArgs,i=i.elements,a=t.invoke(e,r),o=e.def(\\\"null\\\");n=e.def(n,\\\"(\\\",a,\\\")\\\"),a=t.cond(n).then(o,\\\"=\\\",i,\\\".createStream(\\\",a,\\\");\\\").else(o,\\\"=\\\",i,\\\".getElements(\\\",a,\\\");\\\");return e.entry(a),e.exit(t.cond(n).then(i,\\\".destroyStream(\\\",o,\\\");\\\")),t.ELEMENTS=o})}return null}(),s=r(\\\"offset\\\",!0);return{elements:a,primitive:function(){if(\\\"primitive\\\"in n){var t=n.primitive;return R(function(e,r){return rt[t]})}if(\\\"primitive\\\"in i){var e=i.primitive;return F(e,function(t,r){var n=t.constants.primTypes,i=t.invoke(r,e);return r.def(n,\\\"[\\\",i,\\\"]\\\")})}return a?P(a)?a.value?R(function(t,e){return e.def(t.ELEMENTS,\\\".primType\\\")}):R(function(){return 4}):new D(a.thisDep,a.contextDep,a.propDep,function(t,e){var r=t.ELEMENTS;return e.def(r,\\\"?\\\",r,\\\".primType:\\\",4)}):null}(),count:function(){if(\\\"count\\\"in n){var t=0|n.count;return R(function(){return t})}if(\\\"count\\\"in i){var e=i.count;return F(e,function(t,r){return t.invoke(r,e)})}return a?P(a)?a?s?new D(s.thisDep,s.contextDep,s.propDep,function(t,e){return e.def(t.ELEMENTS,\\\".vertCount-\\\",t.OFFSET)}):R(function(t,e){return e.def(t.ELEMENTS,\\\".vertCount\\\")}):R(function(){return-1}):new D(a.thisDep||s.thisDep,a.contextDep||s.contextDep,a.propDep||s.propDep,function(t,e){var r=t.ELEMENTS;return t.OFFSET?e.def(r,\\\"?\\\",r,\\\".vertCount-\\\",t.OFFSET,\\\":-1\\\"):e.def(r,\\\"?\\\",r,\\\".vertCount:-1\\\")}):null}(),instances:r(\\\"instances\\\",!1),offset:s}}function T(t,r){var n=t.static,a=t.dynamic,o={};return Object.keys(n).forEach(function(t){var r=n[t],a=e.id(t),s=new Z;if(O(r))s.state=1,s.buffer=i.getBuffer(i.create(r,34962,!1,!0)),s.type=0;else if(c=i.getBuffer(r))s.state=1,s.buffer=c,s.type=0;else if(\\\"constant\\\"in r){var l=r.constant;s.buffer=\\\"null\\\",s.state=2,\\\"number\\\"==typeof l?s.x=l:bt.forEach(function(t,e){e<l.length&&(s[t]=l[e])})}else{var c=O(r.buffer)?i.getBuffer(i.create(r.buffer,34962,!1,!0)):i.getBuffer(r.buffer),u=0|r.offset,f=0|r.stride,h=0|r.size,p=!!r.normalized,d=0;\\\"type\\\"in r&&(d=J[r.type]),r=0|r.divisor,s.buffer=c,s.state=1,s.size=h,s.normalized=p,s.type=d||c.dtype,s.offset=u,s.stride=f,s.divisor=r}o[t]=R(function(t,e){var r=t.attribCache;if(a in r)return r[a];var n={isStream:!1};return Object.keys(s).forEach(function(t){n[t]=s[t]}),s.buffer&&(n.buffer=t.link(s.buffer),n.type=n.type||n.buffer+\\\".dtype\\\"),r[a]=n})}),Object.keys(a).forEach(function(t){var e=a[t];o[t]=F(e,function(t,r){function n(t){r(l[t],\\\"=\\\",i,\\\".\\\",t,\\\"|0;\\\")}var i=t.invoke(r,e),a=t.shared,o=a.isBufferArgs,s=a.buffer,l={isStream:r.def(!1)},c=new Z;c.state=1,Object.keys(c).forEach(function(t){l[t]=r.def(\\\"\\\"+c[t])});var u=l.buffer,f=l.type;return r(\\\"if(\\\",o,\\\"(\\\",i,\\\")){\\\",l.isStream,\\\"=true;\\\",u,\\\"=\\\",s,\\\".createStream(\\\",34962,\\\",\\\",i,\\\");\\\",f,\\\"=\\\",u,\\\".dtype;\\\",\\\"}else{\\\",u,\\\"=\\\",s,\\\".getBuffer(\\\",i,\\\");\\\",\\\"if(\\\",u,\\\"){\\\",f,\\\"=\\\",u,\\\".dtype;\\\",'}else if(\\\"constant\\\" in ',i,\\\"){\\\",l.state,\\\"=\\\",2,\\\";\\\",\\\"if(typeof \\\"+i+'.constant === \\\"number\\\"){',l[bt[0]],\\\"=\\\",i,\\\".constant;\\\",bt.slice(1).map(function(t){return l[t]}).join(\\\"=\\\"),\\\"=0;\\\",\\\"}else{\\\",bt.map(function(t,e){return l[t]+\\\"=\\\"+i+\\\".constant.length>\\\"+e+\\\"?\\\"+i+\\\".constant[\\\"+e+\\\"]:0;\\\"}).join(\\\"\\\"),\\\"}}else{\\\",\\\"if(\\\",o,\\\"(\\\",i,\\\".buffer)){\\\",u,\\\"=\\\",s,\\\".createStream(\\\",34962,\\\",\\\",i,\\\".buffer);\\\",\\\"}else{\\\",u,\\\"=\\\",s,\\\".getBuffer(\\\",i,\\\".buffer);\\\",\\\"}\\\",f,'=\\\"type\\\" in ',i,\\\"?\\\",a.glTypes,\\\"[\\\",i,\\\".type]:\\\",u,\\\".dtype;\\\",l.normalized,\\\"=!!\\\",i,\\\".normalized;\\\"),n(\\\"size\\\"),n(\\\"offset\\\"),n(\\\"stride\\\"),n(\\\"divisor\\\"),r(\\\"}}\\\"),r.exit(\\\"if(\\\",l.isStream,\\\"){\\\",s,\\\".destroyStream(\\\",u,\\\");\\\",\\\"}\\\"),l})}),o}function A(t,e,r,n,i){var o=_(t),s=function(t,e,r){function n(t){if(t in i){var r=i[t];t=!0;var n,o,s=0|r.x,l=0|r.y;return\\\"width\\\"in r?n=0|r.width:t=!1,\\\"height\\\"in r?o=0|r.height:t=!1,new D(!t&&e&&e.thisDep,!t&&e&&e.contextDep,!t&&e&&e.propDep,function(t,e){var i=t.shared.context,a=n;\\\"width\\\"in r||(a=e.def(i,\\\".\\\",\\\"framebufferWidth\\\",\\\"-\\\",s));var c=o;return\\\"height\\\"in r||(c=e.def(i,\\\".\\\",\\\"framebufferHeight\\\",\\\"-\\\",l)),[s,l,a,c]})}if(t in a){var c=a[t];return t=F(c,function(t,e){var r=t.invoke(e,c),n=t.shared.context,i=e.def(r,\\\".x|0\\\"),a=e.def(r,\\\".y|0\\\");return[i,a,e.def('\\\"width\\\" in ',r,\\\"?\\\",r,\\\".width|0:\\\",\\\"(\\\",n,\\\".\\\",\\\"framebufferWidth\\\",\\\"-\\\",i,\\\")\\\"),r=e.def('\\\"height\\\" in ',r,\\\"?\\\",r,\\\".height|0:\\\",\\\"(\\\",n,\\\".\\\",\\\"framebufferHeight\\\",\\\"-\\\",a,\\\")\\\")]}),e&&(t.thisDep=t.thisDep||e.thisDep,t.contextDep=t.contextDep||e.contextDep,t.propDep=t.propDep||e.propDep),t}return e?new D(e.thisDep,e.contextDep,e.propDep,function(t,e){var r=t.shared.context;return[0,0,e.def(r,\\\".\\\",\\\"framebufferWidth\\\"),e.def(r,\\\".\\\",\\\"framebufferHeight\\\")]}):null}var i=t.static,a=t.dynamic;if(t=n(\\\"viewport\\\")){var o=t;t=new D(t.thisDep,t.contextDep,t.propDep,function(t,e){var r=o.append(t,e),n=t.shared.context;return e.set(n,\\\".viewportWidth\\\",r[2]),e.set(n,\\\".viewportHeight\\\",r[3]),r})}return{viewport:t,scissor_box:n(\\\"scissor.box\\\")}}(t,o),l=k(t),c=function(t,e){var r=t.static,n=t.dynamic,i={};return nt.forEach(function(t){function e(e,a){if(t in r){var s=e(r[t]);i[o]=R(function(){return s})}else if(t in n){var l=n[t];i[o]=F(l,function(t,e){return a(t,e,t.invoke(e,l))})}}var o=m(t);switch(t){case\\\"cull.enable\\\":case\\\"blend.enable\\\":case\\\"dither\\\":case\\\"stencil.enable\\\":case\\\"depth.enable\\\":case\\\"scissor.enable\\\":case\\\"polygonOffset.enable\\\":case\\\"sample.alpha\\\":case\\\"sample.enable\\\":case\\\"depth.mask\\\":return e(function(t){return t},function(t,e,r){return r});case\\\"depth.func\\\":return e(function(t){return kt[t]},function(t,e,r){return e.def(t.constants.compareFuncs,\\\"[\\\",r,\\\"]\\\")});case\\\"depth.range\\\":return e(function(t){return t},function(t,e,r){return[e.def(\\\"+\\\",r,\\\"[0]\\\"),e=e.def(\\\"+\\\",r,\\\"[1]\\\")]});case\\\"blend.func\\\":return e(function(t){return[wt[\\\"srcRGB\\\"in t?t.srcRGB:t.src],wt[\\\"dstRGB\\\"in t?t.dstRGB:t.dst],wt[\\\"srcAlpha\\\"in t?t.srcAlpha:t.src],wt[\\\"dstAlpha\\\"in t?t.dstAlpha:t.dst]]},function(t,e,r){function n(t,n){return e.def('\\\"',t,n,'\\\" in ',r,\\\"?\\\",r,\\\".\\\",t,n,\\\":\\\",r,\\\".\\\",t)}t=t.constants.blendFuncs;var i=n(\\\"src\\\",\\\"RGB\\\"),a=n(\\\"dst\\\",\\\"RGB\\\"),o=(i=e.def(t,\\\"[\\\",i,\\\"]\\\"),e.def(t,\\\"[\\\",n(\\\"src\\\",\\\"Alpha\\\"),\\\"]\\\"));return[i,a=e.def(t,\\\"[\\\",a,\\\"]\\\"),o,t=e.def(t,\\\"[\\\",n(\\\"dst\\\",\\\"Alpha\\\"),\\\"]\\\")]});case\\\"blend.equation\\\":return e(function(t){return\\\"string\\\"==typeof t?[$[t],$[t]]:\\\"object\\\"==typeof t?[$[t.rgb],$[t.alpha]]:void 0},function(t,e,r){var n=t.constants.blendEquations,i=e.def(),a=e.def();return(t=t.cond(\\\"typeof \\\",r,'===\\\"string\\\"')).then(i,\\\"=\\\",a,\\\"=\\\",n,\\\"[\\\",r,\\\"];\\\"),t.else(i,\\\"=\\\",n,\\\"[\\\",r,\\\".rgb];\\\",a,\\\"=\\\",n,\\\"[\\\",r,\\\".alpha];\\\"),e(t),[i,a]});case\\\"blend.color\\\":return e(function(t){return a(4,function(e){return+t[e]})},function(t,e,r){return a(4,function(t){return e.def(\\\"+\\\",r,\\\"[\\\",t,\\\"]\\\")})});case\\\"stencil.mask\\\":return e(function(t){return 0|t},function(t,e,r){return e.def(r,\\\"|0\\\")});case\\\"stencil.func\\\":return e(function(t){return[kt[t.cmp||\\\"keep\\\"],t.ref||0,\\\"mask\\\"in t?t.mask:-1]},function(t,e,r){return[t=e.def('\\\"cmp\\\" in ',r,\\\"?\\\",t.constants.compareFuncs,\\\"[\\\",r,\\\".cmp]\\\",\\\":\\\",7680),e.def(r,\\\".ref|0\\\"),e=e.def('\\\"mask\\\" in ',r,\\\"?\\\",r,\\\".mask|0:-1\\\")]});case\\\"stencil.opFront\\\":case\\\"stencil.opBack\\\":return e(function(e){return[\\\"stencil.opBack\\\"===t?1029:1028,Tt[e.fail||\\\"keep\\\"],Tt[e.zfail||\\\"keep\\\"],Tt[e.zpass||\\\"keep\\\"]]},function(e,r,n){function i(t){return r.def('\\\"',t,'\\\" in ',n,\\\"?\\\",a,\\\"[\\\",n,\\\".\\\",t,\\\"]:\\\",7680)}var a=e.constants.stencilOps;return[\\\"stencil.opBack\\\"===t?1029:1028,i(\\\"fail\\\"),i(\\\"zfail\\\"),i(\\\"zpass\\\")]});case\\\"polygonOffset.offset\\\":return e(function(t){return[0|t.factor,0|t.units]},function(t,e,r){return[e.def(r,\\\".factor|0\\\"),e=e.def(r,\\\".units|0\\\")]});case\\\"cull.face\\\":return e(function(t){var e=0;return\\\"front\\\"===t?e=1028:\\\"back\\\"===t&&(e=1029),e},function(t,e,r){return e.def(r,'===\\\"front\\\"?',1028,\\\":\\\",1029)});case\\\"lineWidth\\\":return e(function(t){return t},function(t,e,r){return r});case\\\"frontFace\\\":return e(function(t){return At[t]},function(t,e,r){return e.def(r+'===\\\"cw\\\"?2304:2305')});case\\\"colorMask\\\":return e(function(t){return t.map(function(t){return!!t})},function(t,e,r){return a(4,function(t){return\\\"!!\\\"+r+\\\"[\\\"+t+\\\"]\\\"})});case\\\"sample.coverage\\\":return e(function(t){return[\\\"value\\\"in t?t.value:1,!!t.invert]},function(t,e,r){return[e.def('\\\"value\\\" in ',r,\\\"?+\\\",r,\\\".value:1\\\"),e=e.def(\\\"!!\\\",r,\\\".invert\\\")]})}}),i}(t),u=w(t),f=s.viewport;return f&&(c.viewport=f),(s=s[f=m(\\\"scissor.box\\\")])&&(c[f]=s),(o={framebuffer:o,draw:l,shader:u,state:c,dirty:s=0<Object.keys(c).length}).profile=function(t){var e,r=t.static;if(t=t.dynamic,\\\"profile\\\"in r){var n=!!r.profile;(e=R(function(t,e){return n})).enable=n}else if(\\\"profile\\\"in t){var i=t.profile;e=F(i,function(t,e){return t.invoke(e,i)})}return e}(t),o.uniforms=function(t,e){var r=t.static,n=t.dynamic,i={};return Object.keys(r).forEach(function(t){var e,n=r[t];if(\\\"number\\\"==typeof n||\\\"boolean\\\"==typeof n)e=R(function(){return n});else if(\\\"function\\\"==typeof n){var o=n._reglType;\\\"texture2d\\\"===o||\\\"textureCube\\\"===o?e=R(function(t){return t.link(n)}):\\\"framebuffer\\\"!==o&&\\\"framebufferCube\\\"!==o||(e=R(function(t){return t.link(n.color[0])}))}else v(n)&&(e=R(function(t){return t.global.def(\\\"[\\\",a(n.length,function(t){return n[t]}),\\\"]\\\")}));e.value=n,i[t]=e}),Object.keys(n).forEach(function(t){var e=n[t];i[t]=F(e,function(t,r){return t.invoke(r,e)})}),i}(r),o.attributes=T(e),o.context=function(t){var e=t.static,r=t.dynamic,n={};return Object.keys(e).forEach(function(t){var r=e[t];n[t]=R(function(t,e){return\\\"number\\\"==typeof r||\\\"boolean\\\"==typeof r?\\\"\\\"+r:t.link(r)})}),Object.keys(r).forEach(function(t){var e=r[t];n[t]=F(e,function(t,r){return t.invoke(r,e)})}),n}(n),o}function M(t,e,r){var n=t.shared.context,i=t.scope();Object.keys(r).forEach(function(a){e.save(n,\\\".\\\"+a),i(n,\\\".\\\",a,\\\"=\\\",r[a].append(t,e),\\\";\\\")}),e(i)}function S(t,e,r,n){var i,a=(s=t.shared).gl,o=s.framebuffer;Q&&(i=e.def(s.extensions,\\\".webgl_draw_buffers\\\"));var s=(l=t.constants).drawBuffer,l=l.backBuffer;t=r?r.append(t,e):e.def(o,\\\".next\\\"),n||e(\\\"if(\\\",t,\\\"!==\\\",o,\\\".cur){\\\"),e(\\\"if(\\\",t,\\\"){\\\",a,\\\".bindFramebuffer(\\\",36160,\\\",\\\",t,\\\".framebuffer);\\\"),Q&&e(i,\\\".drawBuffersWEBGL(\\\",s,\\\"[\\\",t,\\\".colorAttachments.length]);\\\"),e(\\\"}else{\\\",a,\\\".bindFramebuffer(\\\",36160,\\\",null);\\\"),Q&&e(i,\\\".drawBuffersWEBGL(\\\",l,\\\");\\\"),e(\\\"}\\\",o,\\\".cur=\\\",t,\\\";\\\"),n||e(\\\"}\\\")}function E(t,e,r){var n=t.shared,i=n.gl,o=t.current,s=t.next,l=n.current,c=n.next,u=t.cond(l,\\\".dirty\\\");nt.forEach(function(e){var n,f;if(!((e=m(e))in r.state))if(e in s){n=s[e],f=o[e];var h=a(tt[e].length,function(t){return u.def(n,\\\"[\\\",t,\\\"]\\\")});u(t.cond(h.map(function(t,e){return t+\\\"!==\\\"+f+\\\"[\\\"+e+\\\"]\\\"}).join(\\\"||\\\")).then(i,\\\".\\\",at[e],\\\"(\\\",h,\\\");\\\",h.map(function(t,e){return f+\\\"[\\\"+e+\\\"]=\\\"+t}).join(\\\";\\\"),\\\";\\\"))}else n=u.def(c,\\\".\\\",e),h=t.cond(n,\\\"!==\\\",l,\\\".\\\",e),u(h),e in it?h(t.cond(n).then(i,\\\".enable(\\\",it[e],\\\");\\\").else(i,\\\".disable(\\\",it[e],\\\");\\\"),l,\\\".\\\",e,\\\"=\\\",n,\\\";\\\"):h(i,\\\".\\\",at[e],\\\"(\\\",n,\\\");\\\",l,\\\".\\\",e,\\\"=\\\",n,\\\";\\\")}),0===Object.keys(r.state).length&&u(l,\\\".dirty=false;\\\"),e(u)}function C(t,e,r,n){var i=t.shared,a=t.current,o=i.current,s=i.gl;I(Object.keys(r)).forEach(function(i){var l=r[i];if(!n||n(l)){var c=l.append(t,e);if(it[i]){var u=it[i];P(l)?e(s,c?\\\".enable(\\\":\\\".disable(\\\",u,\\\");\\\"):e(t.cond(c).then(s,\\\".enable(\\\",u,\\\");\\\").else(s,\\\".disable(\\\",u,\\\");\\\")),e(o,\\\".\\\",i,\\\"=\\\",c,\\\";\\\")}else if(v(c)){var f=a[i];e(s,\\\".\\\",at[i],\\\"(\\\",c,\\\");\\\",c.map(function(t,e){return f+\\\"[\\\"+e+\\\"]=\\\"+t}).join(\\\";\\\"),\\\";\\\")}else e(s,\\\".\\\",at[i],\\\"(\\\",c,\\\");\\\",o,\\\".\\\",i,\\\"=\\\",c,\\\";\\\")}})}function L(t,e){K&&(t.instancing=e.def(t.shared.extensions,\\\".angle_instanced_arrays\\\"))}function B(t,e,r,n,i){function a(){return\\\"undefined\\\"==typeof performance?\\\"Date.now()\\\":\\\"performance.now()\\\"}function o(t){t(c=e.def(),\\\"=\\\",a(),\\\";\\\"),\\\"string\\\"==typeof i?t(h,\\\".count+=\\\",i,\\\";\\\"):t(h,\\\".count++;\\\"),d&&(n?t(u=e.def(),\\\"=\\\",g,\\\".getNumPendingQueries();\\\"):t(g,\\\".beginQuery(\\\",h,\\\");\\\"))}function s(t){t(h,\\\".cpuTime+=\\\",a(),\\\"-\\\",c,\\\";\\\"),d&&(n?t(g,\\\".pushScopeStats(\\\",u,\\\",\\\",g,\\\".getNumPendingQueries(),\\\",h,\\\");\\\"):t(g,\\\".endQuery();\\\"))}function l(t){var r=e.def(p,\\\".profile\\\");e(p,\\\".profile=\\\",t,\\\";\\\"),e.exit(p,\\\".profile=\\\",r,\\\";\\\")}var c,u,f=t.shared,h=t.stats,p=f.current,g=f.timer;if(r=r.profile){if(P(r))return void(r.enable?(o(e),s(e.exit),l(\\\"true\\\")):l(\\\"false\\\"));l(r=r.append(t,e))}else r=e.def(p,\\\".profile\\\");o(f=t.block()),e(\\\"if(\\\",r,\\\"){\\\",f,\\\"}\\\"),s(t=t.block()),e.exit(\\\"if(\\\",r,\\\"){\\\",t,\\\"}\\\")}function N(t,e,r,n,i){function a(r,n,i){function a(){e(\\\"if(!\\\",u,\\\".buffer){\\\",l,\\\".enableVertexAttribArray(\\\",c,\\\");}\\\");var r,a=i.type;r=i.size?e.def(i.size,\\\"||\\\",n):n,e(\\\"if(\\\",u,\\\".type!==\\\",a,\\\"||\\\",u,\\\".size!==\\\",r,\\\"||\\\",p.map(function(t){return u+\\\".\\\"+t+\\\"!==\\\"+i[t]}).join(\\\"||\\\"),\\\"){\\\",l,\\\".bindBuffer(\\\",34962,\\\",\\\",f,\\\".buffer);\\\",l,\\\".vertexAttribPointer(\\\",[c,r,a,i.normalized,i.stride,i.offset],\\\");\\\",u,\\\".type=\\\",a,\\\";\\\",u,\\\".size=\\\",r,\\\";\\\",p.map(function(t){return u+\\\".\\\"+t+\\\"=\\\"+i[t]+\\\";\\\"}).join(\\\"\\\"),\\\"}\\\"),K&&(a=i.divisor,e(\\\"if(\\\",u,\\\".divisor!==\\\",a,\\\"){\\\",t.instancing,\\\".vertexAttribDivisorANGLE(\\\",[c,a],\\\");\\\",u,\\\".divisor=\\\",a,\\\";}\\\"))}function s(){e(\\\"if(\\\",u,\\\".buffer){\\\",l,\\\".disableVertexAttribArray(\\\",c,\\\");\\\",\\\"}if(\\\",bt.map(function(t,e){return u+\\\".\\\"+t+\\\"!==\\\"+h[e]}).join(\\\"||\\\"),\\\"){\\\",l,\\\".vertexAttrib4f(\\\",c,\\\",\\\",h,\\\");\\\",bt.map(function(t,e){return u+\\\".\\\"+t+\\\"=\\\"+h[e]+\\\";\\\"}).join(\\\"\\\"),\\\"}\\\")}var l=o.gl,c=e.def(r,\\\".location\\\"),u=e.def(o.attributes,\\\"[\\\",c,\\\"]\\\");r=i.state;var f=i.buffer,h=[i.x,i.y,i.z,i.w],p=[\\\"buffer\\\",\\\"normalized\\\",\\\"offset\\\",\\\"stride\\\"];1===r?a():2===r?s():(e(\\\"if(\\\",r,\\\"===\\\",1,\\\"){\\\"),a(),e(\\\"}else{\\\"),s(),e(\\\"}\\\"))}var o=t.shared;n.forEach(function(n){var o,s=n.name,l=r.attributes[s];if(l){if(!i(l))return;o=l.append(t,e)}else{if(!i(Mt))return;var c=t.scopeAttrib(s);o={},Object.keys(new Z).forEach(function(t){o[t]=e.def(c,\\\".\\\",t)})}a(t.link(n),function(t){switch(t){case 35664:case 35667:case 35671:return 2;case 35665:case 35668:case 35672:return 3;case 35666:case 35669:case 35673:return 4;default:return 1}}(n.info.type),o)})}function j(t,r,n,i,o){for(var s,l=t.shared,c=l.gl,u=0;u<i.length;++u){var f,h=(g=i[u]).name,p=g.info.type,d=n.uniforms[h],g=t.link(g)+\\\".location\\\";if(d){if(!o(d))continue;if(P(d)){if(h=d.value,35678===p||35680===p)r(c,\\\".uniform1i(\\\",g,\\\",\\\",(p=t.link(h._texture||h.color[0]._texture))+\\\".bind());\\\"),r.exit(p,\\\".unbind();\\\");else if(35674===p||35675===p||35676===p)d=2,35675===p?d=3:35676===p&&(d=4),r(c,\\\".uniformMatrix\\\",d,\\\"fv(\\\",g,\\\",false,\\\",h=t.global.def(\\\"new Float32Array([\\\"+Array.prototype.slice.call(h)+\\\"])\\\"),\\\");\\\");else{switch(p){case 5126:s=\\\"1f\\\";break;case 35664:s=\\\"2f\\\";break;case 35665:s=\\\"3f\\\";break;case 35666:s=\\\"4f\\\";break;case 35670:case 5124:s=\\\"1i\\\";break;case 35671:case 35667:s=\\\"2i\\\";break;case 35672:case 35668:s=\\\"3i\\\";break;case 35673:s=\\\"4i\\\";break;case 35669:s=\\\"4i\\\"}r(c,\\\".uniform\\\",s,\\\"(\\\",g,\\\",\\\",v(h)?Array.prototype.slice.call(h):h,\\\");\\\")}continue}f=d.append(t,r)}else{if(!o(Mt))continue;f=r.def(l.uniforms,\\\"[\\\",e.id(h),\\\"]\\\")}switch(35678===p?r(\\\"if(\\\",f,\\\"&&\\\",f,'._reglType===\\\"framebuffer\\\"){',f,\\\"=\\\",f,\\\".color[0];\\\",\\\"}\\\"):35680===p&&r(\\\"if(\\\",f,\\\"&&\\\",f,'._reglType===\\\"framebufferCube\\\"){',f,\\\"=\\\",f,\\\".color[0];\\\",\\\"}\\\"),h=1,p){case 35678:case 35680:p=r.def(f,\\\"._texture\\\"),r(c,\\\".uniform1i(\\\",g,\\\",\\\",p,\\\".bind());\\\"),r.exit(p,\\\".unbind();\\\");continue;case 5124:case 35670:s=\\\"1i\\\";break;case 35667:case 35671:s=\\\"2i\\\",h=2;break;case 35668:case 35672:s=\\\"3i\\\",h=3;break;case 35669:case 35673:s=\\\"4i\\\",h=4;break;case 5126:s=\\\"1f\\\";break;case 35664:s=\\\"2f\\\",h=2;break;case 35665:s=\\\"3f\\\",h=3;break;case 35666:s=\\\"4f\\\",h=4;break;case 35674:s=\\\"Matrix2fv\\\";break;case 35675:s=\\\"Matrix3fv\\\";break;case 35676:s=\\\"Matrix4fv\\\"}if(r(c,\\\".uniform\\\",s,\\\"(\\\",g,\\\",\\\"),\\\"M\\\"===s.charAt(0)){g=Math.pow(p-35674+2,2);var m=t.global.def(\\\"new Float32Array(\\\",g,\\\")\\\");r(\\\"false,(Array.isArray(\\\",f,\\\")||\\\",f,\\\" instanceof Float32Array)?\\\",f,\\\":(\\\",a(g,function(t){return m+\\\"[\\\"+t+\\\"]=\\\"+f+\\\"[\\\"+t+\\\"]\\\"}),\\\",\\\",m,\\\")\\\")}else r(1<h?a(h,function(t){return f+\\\"[\\\"+t+\\\"]\\\"}):f);r(\\\");\\\")}}function V(t,e,r,n){function i(i){var a=h[i];return a?a.contextDep&&n.contextDynamic||a.propDep?a.append(t,r):a.append(t,e):e.def(f,\\\".\\\",i)}function a(){function t(){r(l,\\\".drawElementsInstancedANGLE(\\\",[d,v,m,g+\\\"<<((\\\"+m+\\\"-5121)>>1)\\\",s],\\\");\\\")}function e(){r(l,\\\".drawArraysInstancedANGLE(\\\",[d,g,v,s],\\\");\\\")}p?y?t():(r(\\\"if(\\\",p,\\\"){\\\"),t(),r(\\\"}else{\\\"),e(),r(\\\"}\\\")):e()}function o(){function t(){r(u+\\\".drawElements(\\\"+[d,v,m,g+\\\"<<((\\\"+m+\\\"-5121)>>1)\\\"]+\\\");\\\")}function e(){r(u+\\\".drawArrays(\\\"+[d,g,v]+\\\");\\\")}p?y?t():(r(\\\"if(\\\",p,\\\"){\\\"),t(),r(\\\"}else{\\\"),e(),r(\\\"}\\\")):e()}var s,l,c=t.shared,u=c.gl,f=c.draw,h=n.draw,p=function(){var i=h.elements,a=e;return i?((i.contextDep&&n.contextDynamic||i.propDep)&&(a=r),i=i.append(t,a)):i=a.def(f,\\\".\\\",\\\"elements\\\"),i&&a(\\\"if(\\\"+i+\\\")\\\"+u+\\\".bindBuffer(34963,\\\"+i+\\\".buffer.buffer);\\\"),i}(),d=i(\\\"primitive\\\"),g=i(\\\"offset\\\"),v=function(){var i=h.count,a=e;return i?((i.contextDep&&n.contextDynamic||i.propDep)&&(a=r),i=i.append(t,a)):i=a.def(f,\\\".\\\",\\\"count\\\"),i}();if(\\\"number\\\"==typeof v){if(0===v)return}else r(\\\"if(\\\",v,\\\"){\\\"),r.exit(\\\"}\\\");K&&(s=i(\\\"instances\\\"),l=t.instancing);var m=p+\\\".type\\\",y=h.elements&&P(h.elements);K&&(\\\"number\\\"!=typeof s||0<=s)?\\\"string\\\"==typeof s?(r(\\\"if(\\\",s,\\\">0){\\\"),a(),r(\\\"}else if(\\\",s,\\\"<0){\\\"),o(),r(\\\"}\\\")):a():o()}function H(t,e,r,n,i){return i=(e=b()).proc(\\\"body\\\",i),K&&(e.instancing=i.def(e.shared.extensions,\\\".angle_instanced_arrays\\\")),t(e,i,r,n),e.compile().body}function q(t,e,r,n){L(t,e),N(t,e,r,n.attributes,function(){return!0}),j(t,e,r,n.uniforms,function(){return!0}),V(t,e,e,r)}function G(t,e,r,n){function i(){return!0}t.batchId=\\\"a1\\\",L(t,e),N(t,e,r,n.attributes,i),j(t,e,r,n.uniforms,i),V(t,e,e,r)}function Y(t,e,r,n){function i(t){return t.contextDep&&o||t.propDep}function a(t){return!i(t)}L(t,e);var o=r.contextDep,s=e.def(),l=e.def();t.shared.props=l,t.batchId=s;var c=t.scope(),u=t.scope();e(c.entry,\\\"for(\\\",s,\\\"=0;\\\",s,\\\"<\\\",\\\"a1\\\",\\\";++\\\",s,\\\"){\\\",l,\\\"=\\\",\\\"a0\\\",\\\"[\\\",s,\\\"];\\\",u,\\\"}\\\",c.exit),r.needsContext&&M(t,u,r.context),r.needsFramebuffer&&S(t,u,r.framebuffer),C(t,u,r.state,i),r.profile&&i(r.profile)&&B(t,u,r,!1,!0),n?(N(t,c,r,n.attributes,a),N(t,u,r,n.attributes,i),j(t,c,r,n.uniforms,a),j(t,u,r,n.uniforms,i),V(t,c,u,r)):(e=t.global.def(\\\"{}\\\"),n=r.shader.progVar.append(t,u),l=u.def(n,\\\".id\\\"),c=u.def(e,\\\"[\\\",l,\\\"]\\\"),u(t.shared.gl,\\\".useProgram(\\\",n,\\\".program);\\\",\\\"if(!\\\",c,\\\"){\\\",c,\\\"=\\\",e,\\\"[\\\",l,\\\"]=\\\",t.link(function(e){return H(G,t,r,e,2)}),\\\"(\\\",n,\\\");}\\\",c,\\\".call(this,a0[\\\",s,\\\"],\\\",s,\\\");\\\"))}function W(t,r){function n(e){var n=r.shader[e];n&&i.set(a.shader,\\\".\\\"+e,n.append(t,i))}var i=t.proc(\\\"scope\\\",3);t.batchId=\\\"a2\\\";var a=t.shared,o=a.current;M(t,i,r.context),r.framebuffer&&r.framebuffer.append(t,i),I(Object.keys(r.state)).forEach(function(e){var n=r.state[e].append(t,i);v(n)?n.forEach(function(r,n){i.set(t.next[e],\\\"[\\\"+n+\\\"]\\\",r)}):i.set(a.next,\\\".\\\"+e,n)}),B(t,i,r,!0,!0),[\\\"elements\\\",\\\"offset\\\",\\\"count\\\",\\\"instances\\\",\\\"primitive\\\"].forEach(function(e){var n=r.draw[e];n&&i.set(a.draw,\\\".\\\"+e,\\\"\\\"+n.append(t,i))}),Object.keys(r.uniforms).forEach(function(n){i.set(a.uniforms,\\\"[\\\"+e.id(n)+\\\"]\\\",r.uniforms[n].append(t,i))}),Object.keys(r.attributes).forEach(function(e){var n=r.attributes[e].append(t,i),a=t.scopeAttrib(e);Object.keys(new Z).forEach(function(t){i.set(a,\\\".\\\"+t,n[t])})}),n(\\\"vert\\\"),n(\\\"frag\\\"),0<Object.keys(r.state).length&&(i(o,\\\".dirty=true;\\\"),i.exit(o,\\\".dirty=true;\\\")),i(\\\"a1(\\\",t.shared.context,\\\",a0,\\\",t.batchId,\\\");\\\")}function X(t,e,r){var n=e.static[r];if(n&&function(t){if(\\\"object\\\"==typeof t&&!v(t)){for(var e=Object.keys(t),r=0;r<e.length;++r)if(U.isDynamic(t[e[r]]))return!0;return!1}}(n)){var i=t.global,a=Object.keys(n),o=!1,s=!1,l=!1,c=t.global.def(\\\"{}\\\");a.forEach(function(e){var r=n[e];if(U.isDynamic(r))\\\"function\\\"==typeof r&&(r=n[e]=U.unbox(r)),e=F(r,null),o=o||e.thisDep,l=l||e.propDep,s=s||e.contextDep;else{switch(i(c,\\\".\\\",e,\\\"=\\\"),typeof r){case\\\"number\\\":i(r);break;case\\\"string\\\":i('\\\"',r,'\\\"');break;case\\\"object\\\":Array.isArray(r)&&i(\\\"[\\\",r.join(),\\\"]\\\");break;default:i(t.link(r))}i(\\\";\\\")}}),e.dynamic[r]=new U.DynamicVariable(4,{thisDep:o,contextDep:s,propDep:l,ref:c,append:function(t,e){a.forEach(function(r){var i=n[r];U.isDynamic(i)&&(i=t.invoke(e,i),e(c,\\\".\\\",r,\\\"=\\\",i,\\\";\\\"))})}}),delete e.static[r]}}var Z=u.Record,$={add:32774,subtract:32778,\\\"reverse subtract\\\":32779};r.ext_blend_minmax&&($.min=32775,$.max=32776);var K=r.angle_instanced_arrays,Q=r.webgl_draw_buffers,tt={dirty:!0,profile:g.profile},et={},nt=[],it={},at={};y(\\\"dither\\\",3024),y(\\\"blend.enable\\\",3042),x(\\\"blend.color\\\",\\\"blendColor\\\",[0,0,0,0]),x(\\\"blend.equation\\\",\\\"blendEquationSeparate\\\",[32774,32774]),x(\\\"blend.func\\\",\\\"blendFuncSeparate\\\",[1,0,1,0]),y(\\\"depth.enable\\\",2929,!0),x(\\\"depth.func\\\",\\\"depthFunc\\\",513),x(\\\"depth.range\\\",\\\"depthRange\\\",[0,1]),x(\\\"depth.mask\\\",\\\"depthMask\\\",!0),x(\\\"colorMask\\\",\\\"colorMask\\\",[!0,!0,!0,!0]),y(\\\"cull.enable\\\",2884),x(\\\"cull.face\\\",\\\"cullFace\\\",1029),x(\\\"frontFace\\\",\\\"frontFace\\\",2305),x(\\\"lineWidth\\\",\\\"lineWidth\\\",1),y(\\\"polygonOffset.enable\\\",32823),x(\\\"polygonOffset.offset\\\",\\\"polygonOffset\\\",[0,0]),y(\\\"sample.alpha\\\",32926),y(\\\"sample.enable\\\",32928),x(\\\"sample.coverage\\\",\\\"sampleCoverage\\\",[1,!1]),y(\\\"stencil.enable\\\",2960),x(\\\"stencil.mask\\\",\\\"stencilMask\\\",-1),x(\\\"stencil.func\\\",\\\"stencilFunc\\\",[519,0,-1]),x(\\\"stencil.opFront\\\",\\\"stencilOpSeparate\\\",[1028,7680,7680,7680]),x(\\\"stencil.opBack\\\",\\\"stencilOpSeparate\\\",[1029,7680,7680,7680]),y(\\\"scissor.enable\\\",3089),x(\\\"scissor.box\\\",\\\"scissor\\\",[0,0,t.drawingBufferWidth,t.drawingBufferHeight]),x(\\\"viewport\\\",\\\"viewport\\\",[0,0,t.drawingBufferWidth,t.drawingBufferHeight]);var ot={gl:t,context:p,strings:e,next:et,current:tt,draw:h,elements:o,buffer:i,shader:f,attributes:u.state,uniforms:c,framebuffer:l,extensions:r,timer:d,isBufferArgs:O},st={primTypes:rt,compareFuncs:kt,blendFuncs:wt,blendEquations:$,stencilOps:Tt,glTypes:J,orientationType:At};Q&&(st.backBuffer=[1029],st.drawBuffer=a(n.maxDrawbuffers,function(t){return 0===t?[0]:a(t,function(t){return 36064+t})}));var lt=0;return{next:et,current:tt,procs:function(){var t=b(),e=t.proc(\\\"poll\\\"),r=t.proc(\\\"refresh\\\"),i=t.block();e(i),r(i);var o,s=t.shared,l=s.gl,c=s.next,u=s.current;i(u,\\\".dirty=false;\\\"),S(t,e),S(t,r,null,!0),K&&(o=t.link(K));for(var f=0;f<n.maxAttributes;++f){var h=r.def(s.attributes,\\\"[\\\",f,\\\"]\\\"),p=t.cond(h,\\\".buffer\\\");p.then(l,\\\".enableVertexAttribArray(\\\",f,\\\");\\\",l,\\\".bindBuffer(\\\",34962,\\\",\\\",h,\\\".buffer.buffer);\\\",l,\\\".vertexAttribPointer(\\\",f,\\\",\\\",h,\\\".size,\\\",h,\\\".type,\\\",h,\\\".normalized,\\\",h,\\\".stride,\\\",h,\\\".offset);\\\").else(l,\\\".disableVertexAttribArray(\\\",f,\\\");\\\",l,\\\".vertexAttrib4f(\\\",f,\\\",\\\",h,\\\".x,\\\",h,\\\".y,\\\",h,\\\".z,\\\",h,\\\".w);\\\",h,\\\".buffer=null;\\\"),r(p),K&&r(o,\\\".vertexAttribDivisorANGLE(\\\",f,\\\",\\\",h,\\\".divisor);\\\")}return Object.keys(it).forEach(function(n){var a=it[n],o=i.def(c,\\\".\\\",n),s=t.block();s(\\\"if(\\\",o,\\\"){\\\",l,\\\".enable(\\\",a,\\\")}else{\\\",l,\\\".disable(\\\",a,\\\")}\\\",u,\\\".\\\",n,\\\"=\\\",o,\\\";\\\"),r(s),e(\\\"if(\\\",o,\\\"!==\\\",u,\\\".\\\",n,\\\"){\\\",s,\\\"}\\\")}),Object.keys(at).forEach(function(n){var o,s,f=at[n],h=tt[n],p=t.block();p(l,\\\".\\\",f,\\\"(\\\"),v(h)?(f=h.length,o=t.global.def(c,\\\".\\\",n),s=t.global.def(u,\\\".\\\",n),p(a(f,function(t){return o+\\\"[\\\"+t+\\\"]\\\"}),\\\");\\\",a(f,function(t){return s+\\\"[\\\"+t+\\\"]=\\\"+o+\\\"[\\\"+t+\\\"];\\\"}).join(\\\"\\\")),e(\\\"if(\\\",a(f,function(t){return o+\\\"[\\\"+t+\\\"]!==\\\"+s+\\\"[\\\"+t+\\\"]\\\"}).join(\\\"||\\\"),\\\"){\\\",p,\\\"}\\\")):(o=i.def(c,\\\".\\\",n),s=i.def(u,\\\".\\\",n),p(o,\\\");\\\",u,\\\".\\\",n,\\\"=\\\",o,\\\";\\\"),e(\\\"if(\\\",o,\\\"!==\\\",s,\\\"){\\\",p,\\\"}\\\")),r(p)}),t.compile()}(),compile:function(t,e,r,n,i){var a=b();return a.stats=a.link(i),Object.keys(e.static).forEach(function(t){X(a,e,t)}),_t.forEach(function(e){X(a,t,e)}),r=A(t,e,r,n),function(t,e){var r=t.proc(\\\"draw\\\",1);L(t,r),M(t,r,e.context),S(t,r,e.framebuffer),E(t,r,e),C(t,r,e.state),B(t,r,e,!1,!0);var n=e.shader.progVar.append(t,r);if(r(t.shared.gl,\\\".useProgram(\\\",n,\\\".program);\\\"),e.shader.program)q(t,r,e,e.shader.program);else{var i=t.global.def(\\\"{}\\\"),a=r.def(n,\\\".id\\\"),o=r.def(i,\\\"[\\\",a,\\\"]\\\");r(t.cond(o).then(o,\\\".call(this,a0);\\\").else(o,\\\"=\\\",i,\\\"[\\\",a,\\\"]=\\\",t.link(function(r){return H(q,t,e,r,1)}),\\\"(\\\",n,\\\");\\\",o,\\\".call(this,a0);\\\"))}0<Object.keys(e.state).length&&r(t.shared.current,\\\".dirty=true;\\\")}(a,r),W(a,r),function(t,e){function r(t){return t.contextDep&&i||t.propDep}var n=t.proc(\\\"batch\\\",2);t.batchId=\\\"0\\\",L(t,n);var i=!1,a=!0;Object.keys(e.context).forEach(function(t){i=i||e.context[t].propDep}),i||(M(t,n,e.context),a=!1);var o=!1;if((s=e.framebuffer)?(s.propDep?i=o=!0:s.contextDep&&i&&(o=!0),o||S(t,n,s)):S(t,n,null),e.state.viewport&&e.state.viewport.propDep&&(i=!0),E(t,n,e),C(t,n,e.state,function(t){return!r(t)}),e.profile&&r(e.profile)||B(t,n,e,!1,\\\"a1\\\"),e.contextDep=i,e.needsContext=a,e.needsFramebuffer=o,(a=e.shader.progVar).contextDep&&i||a.propDep)Y(t,n,e,null);else if(a=a.append(t,n),n(t.shared.gl,\\\".useProgram(\\\",a,\\\".program);\\\"),e.shader.program)Y(t,n,e,e.shader.program);else{var s=t.global.def(\\\"{}\\\"),l=(o=n.def(a,\\\".id\\\"),n.def(s,\\\"[\\\",o,\\\"]\\\"));n(t.cond(l).then(l,\\\".call(this,a0,a1);\\\").else(l,\\\"=\\\",s,\\\"[\\\",o,\\\"]=\\\",t.link(function(r){return H(Y,t,e,r,2)}),\\\"(\\\",a,\\\");\\\",l,\\\".call(this,a0,a1);\\\"))}0<Object.keys(e.state).length&&n(t.shared.current,\\\".dirty=true;\\\")}(a,r),a.compile()}}}function N(t,e){for(var r=0;r<t.length;++r)if(t[r]===e)return r;return-1}var j=function(t,e){for(var r=Object.keys(e),n=0;n<r.length;++n)t[r[n]]=e[r[n]];return t},V=0,U={DynamicVariable:t,define:function(r,n){return new t(r,e(n+\\\"\\\"))},isDynamic:function(e){return\\\"function\\\"==typeof e&&!e._reglType||e instanceof t},unbox:function(e,r){return\\\"function\\\"==typeof e?new t(0,e):e},accessor:e},H={next:\\\"function\\\"==typeof requestAnimationFrame?function(t){return requestAnimationFrame(t)}:function(t){return setTimeout(t,16)},cancel:\\\"function\\\"==typeof cancelAnimationFrame?function(t){return cancelAnimationFrame(t)}:clearTimeout},q=\\\"undefined\\\"!=typeof performance&&performance.now?function(){return performance.now()}:function(){return+new Date},G=s();G.zero=s();var Y=function(t,e){var r=1;e.ext_texture_filter_anisotropic&&(r=t.getParameter(34047));var n=1,i=1;e.webgl_draw_buffers&&(n=t.getParameter(34852),i=t.getParameter(36063));var a=!!e.oes_texture_float;if(a){a=t.createTexture(),t.bindTexture(3553,a),t.texImage2D(3553,0,6408,1,1,0,6408,5126,null);var o=t.createFramebuffer();if(t.bindFramebuffer(36160,o),t.framebufferTexture2D(36160,36064,3553,a,0),t.bindTexture(3553,null),36053!==t.checkFramebufferStatus(36160))a=!1;else{t.viewport(0,0,1,1),t.clearColor(1,0,0,1),t.clear(16384);var s=G.allocType(5126,4);t.readPixels(0,0,1,1,6408,5126,s),t.getError()?a=!1:(t.deleteFramebuffer(o),t.deleteTexture(a),a=1===s[0]),G.freeType(s)}}return s=!0,\\\"undefined\\\"!=typeof navigator&&(/MSIE/.test(navigator.userAgent)||/Trident\\\\//.test(navigator.appVersion)||/Edge/.test(navigator.userAgent))||(s=t.createTexture(),o=G.allocType(5121,36),t.activeTexture(33984),t.bindTexture(34067,s),t.texImage2D(34069,0,6408,3,3,0,6408,5121,o),G.freeType(o),t.bindTexture(34067,null),t.deleteTexture(s),s=!t.getError()),{colorBits:[t.getParameter(3410),t.getParameter(3411),t.getParameter(3412),t.getParameter(3413)],depthBits:t.getParameter(3414),stencilBits:t.getParameter(3415),subpixelBits:t.getParameter(3408),extensions:Object.keys(e).filter(function(t){return!!e[t]}),maxAnisotropic:r,maxDrawbuffers:n,maxColorAttachments:i,pointSizeDims:t.getParameter(33901),lineWidthDims:t.getParameter(33902),maxViewportDims:t.getParameter(3386),maxCombinedTextureUnits:t.getParameter(35661),maxCubeMapSize:t.getParameter(34076),maxRenderbufferSize:t.getParameter(34024),maxTextureUnits:t.getParameter(34930),maxTextureSize:t.getParameter(3379),maxAttributes:t.getParameter(34921),maxVertexUniforms:t.getParameter(36347),maxVertexTextureUnits:t.getParameter(35660),maxVaryingVectors:t.getParameter(36348),maxFragmentUniforms:t.getParameter(36349),glsl:t.getParameter(35724),renderer:t.getParameter(7937),vendor:t.getParameter(7936),version:t.getParameter(7938),readFloat:a,npotTextureCube:s}},W=function(t){return t instanceof Uint8Array||t instanceof Uint16Array||t instanceof Uint32Array||t instanceof Int8Array||t instanceof Int16Array||t instanceof Int32Array||t instanceof Float32Array||t instanceof Float64Array||t instanceof Uint8ClampedArray},X=function(t){return Object.keys(t).map(function(e){return t[e]})},Z={shape:function(t){for(var e=[];t.length;t=t[0])e.push(t.length);return e},flatten:function(t,e,r,n){var i=1;if(e.length)for(var a=0;a<e.length;++a)i*=e[a];else i=0;switch(r=n||G.allocType(r,i),e.length){case 0:break;case 1:for(n=e[0],e=0;e<n;++e)r[e]=t[e];break;case 2:for(n=e[0],e=e[1],a=i=0;a<n;++a)for(var o=t[a],s=0;s<e;++s)r[i++]=o[s];break;case 3:c(t,e[0],e[1],e[2],r,0);break;default:!function t(e,r,n,i,a){for(var o=1,s=n+1;s<r.length;++s)o*=r[s];var l=r[n];if(4==r.length-n){var u=r[n+1],f=r[n+2];for(r=r[n+3],s=0;s<l;++s)c(e[s],u,f,r,i,a),a+=o}else for(s=0;s<l;++s)t(e[s],r,n+1,i,a),a+=o}(t,e,0,r,0)}return r}},$={\\\"[object Int8Array]\\\":5120,\\\"[object Int16Array]\\\":5122,\\\"[object Int32Array]\\\":5124,\\\"[object Uint8Array]\\\":5121,\\\"[object Uint8ClampedArray]\\\":5121,\\\"[object Uint16Array]\\\":5123,\\\"[object Uint32Array]\\\":5125,\\\"[object Float32Array]\\\":5126,\\\"[object Float64Array]\\\":5121,\\\"[object ArrayBuffer]\\\":5121},J={int8:5120,int16:5122,int32:5124,uint8:5121,uint16:5123,uint32:5125,float:5126,float32:5126},K={dynamic:35048,stream:35040,static:35044},Q=Z.flatten,tt=Z.shape,et=[];et[5120]=1,et[5122]=2,et[5124]=4,et[5121]=1,et[5123]=2,et[5125]=4,et[5126]=4;var rt={points:0,point:0,lines:1,line:1,triangles:4,triangle:4,\\\"line loop\\\":2,\\\"line strip\\\":3,\\\"triangle strip\\\":5,\\\"triangle fan\\\":6},nt=new Float32Array(1),it=new Uint32Array(nt.buffer),at=[9984,9986,9985,9987],ot=[0,6409,6410,6407,6408],st={};st[6409]=st[6406]=st[6402]=1,st[34041]=st[6410]=2,st[6407]=st[35904]=3,st[6408]=st[35906]=4;var lt=m(\\\"HTMLCanvasElement\\\"),ct=m(\\\"CanvasRenderingContext2D\\\"),ut=m(\\\"ImageBitmap\\\"),ft=m(\\\"HTMLImageElement\\\"),ht=m(\\\"HTMLVideoElement\\\"),pt=Object.keys($).concat([lt,ct,ut,ft,ht]),dt=[];dt[5121]=1,dt[5126]=4,dt[36193]=2,dt[5123]=2,dt[5125]=4;var gt=[];gt[32854]=2,gt[32855]=2,gt[36194]=2,gt[34041]=4,gt[33776]=.5,gt[33777]=.5,gt[33778]=1,gt[33779]=1,gt[35986]=.5,gt[35987]=1,gt[34798]=1,gt[35840]=.5,gt[35841]=.25,gt[35842]=.5,gt[35843]=.25,gt[36196]=.5;var vt=[];vt[32854]=2,vt[32855]=2,vt[36194]=2,vt[33189]=2,vt[36168]=1,vt[34041]=4,vt[35907]=4,vt[34836]=16,vt[34842]=8,vt[34843]=6;var mt=function(t,e,r,n,i){function a(t){this.id=c++,this.refCount=1,this.renderbuffer=t,this.format=32854,this.height=this.width=0,i.profile&&(this.stats={size:0})}function o(e){var r=e.renderbuffer;t.bindRenderbuffer(36161,null),t.deleteRenderbuffer(r),e.renderbuffer=null,e.refCount=0,delete u[e.id],n.renderbufferCount--}var s={rgba4:32854,rgb565:36194,\\\"rgb5 a1\\\":32855,depth:33189,stencil:36168,\\\"depth stencil\\\":34041};e.ext_srgb&&(s.srgba=35907),e.ext_color_buffer_half_float&&(s.rgba16f=34842,s.rgb16f=34843),e.webgl_color_buffer_float&&(s.rgba32f=34836);var l=[];Object.keys(s).forEach(function(t){l[s[t]]=t});var c=0,u={};return a.prototype.decRef=function(){0>=--this.refCount&&o(this)},i.profile&&(n.getTotalRenderbufferSize=function(){var t=0;return Object.keys(u).forEach(function(e){t+=u[e].stats.size}),t}),{create:function(e,r){function o(e,r){var n=0,a=0,u=32854;if(\\\"object\\\"==typeof e&&e?(\\\"shape\\\"in e?(n=0|(a=e.shape)[0],a=0|a[1]):(\\\"radius\\\"in e&&(n=a=0|e.radius),\\\"width\\\"in e&&(n=0|e.width),\\\"height\\\"in e&&(a=0|e.height)),\\\"format\\\"in e&&(u=s[e.format])):\\\"number\\\"==typeof e?(n=0|e,a=\\\"number\\\"==typeof r?0|r:n):e||(n=a=1),n!==c.width||a!==c.height||u!==c.format)return o.width=c.width=n,o.height=c.height=a,c.format=u,t.bindRenderbuffer(36161,c.renderbuffer),t.renderbufferStorage(36161,u,n,a),i.profile&&(c.stats.size=vt[c.format]*c.width*c.height),o.format=l[c.format],o}var c=new a(t.createRenderbuffer());return u[c.id]=c,n.renderbufferCount++,o(e,r),o.resize=function(e,r){var n=0|e,a=0|r||n;return n===c.width&&a===c.height?o:(o.width=c.width=n,o.height=c.height=a,t.bindRenderbuffer(36161,c.renderbuffer),t.renderbufferStorage(36161,c.format,n,a),i.profile&&(c.stats.size=vt[c.format]*c.width*c.height),o)},o._reglType=\\\"renderbuffer\\\",o._renderbuffer=c,i.profile&&(o.stats=c.stats),o.destroy=function(){c.decRef()},o},clear:function(){X(u).forEach(o)},restore:function(){X(u).forEach(function(e){e.renderbuffer=t.createRenderbuffer(),t.bindRenderbuffer(36161,e.renderbuffer),t.renderbufferStorage(36161,e.format,e.width,e.height)}),t.bindRenderbuffer(36161,null)}}},yt=[];yt[6408]=4,yt[6407]=3;var xt=[];xt[5121]=1,xt[5126]=4,xt[36193]=2;var bt=[\\\"x\\\",\\\"y\\\",\\\"z\\\",\\\"w\\\"],_t=\\\"blend.func blend.equation stencil.func stencil.opFront stencil.opBack sample.coverage viewport scissor.box polygonOffset.offset\\\".split(\\\" \\\"),wt={0:0,1:1,zero:0,one:1,\\\"src color\\\":768,\\\"one minus src color\\\":769,\\\"src alpha\\\":770,\\\"one minus src alpha\\\":771,\\\"dst color\\\":774,\\\"one minus dst color\\\":775,\\\"dst alpha\\\":772,\\\"one minus dst alpha\\\":773,\\\"constant color\\\":32769,\\\"one minus constant color\\\":32770,\\\"constant alpha\\\":32771,\\\"one minus constant alpha\\\":32772,\\\"src alpha saturate\\\":776},kt={never:512,less:513,\\\"<\\\":513,equal:514,\\\"=\\\":514,\\\"==\\\":514,\\\"===\\\":514,lequal:515,\\\"<=\\\":515,greater:516,\\\">\\\":516,notequal:517,\\\"!=\\\":517,\\\"!==\\\":517,gequal:518,\\\">=\\\":518,always:519},Tt={0:0,zero:0,keep:7680,replace:7681,increment:7682,decrement:7683,\\\"increment wrap\\\":34055,\\\"decrement wrap\\\":34056,invert:5386},At={cw:2304,ccw:2305},Mt=new D(!1,!1,!1,function(){});return function(t){function e(){if(0===Z.length)w&&w.update(),Q=null;else{Q=H.next(e),f();for(var t=Z.length-1;0<=t;--t){var r=Z[t];r&&r(z,null,0)}v.flush(),w&&w.update()}}function r(){!Q&&0<Z.length&&(Q=H.next(e))}function n(){Q&&(H.cancel(e),Q=null)}function a(t){t.preventDefault(),n(),$.forEach(function(t){t()})}function o(t){v.getError(),y.restore(),P.restore(),I.restore(),R.restore(),F.restore(),V.restore(),w&&w.restore(),G.procs.refresh(),r(),J.forEach(function(t){t()})}function s(t){function e(t){var e={},r={};return Object.keys(t).forEach(function(n){var i=t[n];U.isDynamic(i)?r[n]=U.unbox(i,n):e[n]=i}),{dynamic:r,static:e}}var r=e(t.context||{}),n=e(t.uniforms||{}),i=e(t.attributes||{}),a=e(function(t){function e(t){if(t in r){var e=r[t];delete r[t],Object.keys(e).forEach(function(n){r[t+\\\".\\\"+n]=e[n]})}}var r=j({},t);return delete r.uniforms,delete r.attributes,delete r.context,\\\"stencil\\\"in r&&r.stencil.op&&(r.stencil.opBack=r.stencil.opFront=r.stencil.op,delete r.stencil.op),e(\\\"blend\\\"),e(\\\"depth\\\"),e(\\\"cull\\\"),e(\\\"stencil\\\"),e(\\\"polygonOffset\\\"),e(\\\"scissor\\\"),e(\\\"sample\\\"),r}(t));t={gpuTime:0,cpuTime:0,count:0};var o=(r=G.compile(a,i,n,r,t)).draw,s=r.batch,l=r.scope,c=[];return j(function(t,e){var r;if(\\\"function\\\"==typeof t)return l.call(this,null,t,0);if(\\\"function\\\"==typeof e)if(\\\"number\\\"==typeof t)for(r=0;r<t;++r)l.call(this,null,e,r);else{if(!Array.isArray(t))return l.call(this,t,e,0);for(r=0;r<t.length;++r)l.call(this,t[r],e,r)}else if(\\\"number\\\"==typeof t){if(0<t)return s.call(this,function(t){for(;c.length<t;)c.push(null);return c}(0|t),0|t)}else{if(!Array.isArray(t))return o.call(this,t);if(t.length)return s.call(this,t,t.length)}},{stats:t})}function l(t,e){var r=0;G.procs.poll();var n=e.color;n&&(v.clearColor(+n[0]||0,+n[1]||0,+n[2]||0,+n[3]||0),r|=16384),\\\"depth\\\"in e&&(v.clearDepth(+e.depth),r|=256),\\\"stencil\\\"in e&&(v.clearStencil(0|e.stencil),r|=1024),v.clear(r)}function c(t){return Z.push(t),r(),{cancel:function(){var e=N(Z,t);Z[e]=function t(){var e=N(Z,t);Z[e]=Z[Z.length-1],--Z.length,0>=Z.length&&n()}}}}function u(){var t=W.viewport,e=W.scissor_box;t[0]=t[1]=e[0]=e[1]=0,z.viewportWidth=z.framebufferWidth=z.drawingBufferWidth=t[2]=e[2]=v.drawingBufferWidth,z.viewportHeight=z.framebufferHeight=z.drawingBufferHeight=t[3]=e[3]=v.drawingBufferHeight}function f(){z.tick+=1,z.time=g(),u(),G.procs.poll()}function h(){u(),G.procs.refresh(),w&&w.update()}function g(){return(q()-k)/1e3}if(!(t=i(t)))return null;var v=t.gl,m=v.getContextAttributes();v.isContextLost();var y=function(t,e){function r(e){var r;e=e.toLowerCase();try{r=n[e]=t.getExtension(e)}catch(t){}return!!r}for(var n={},i=0;i<e.extensions.length;++i){var a=e.extensions[i];if(!r(a))return e.onDestroy(),e.onDone('\\\"'+a+'\\\" extension is not supported by the current WebGL context, try upgrading your system or a different browser'),null}return e.optionalExtensions.forEach(r),{extensions:n,restore:function(){Object.keys(n).forEach(function(t){if(n[t]&&!r(t))throw Error(\\\"(regl): error restoring extension \\\"+t)})}}}(v,t);if(!y)return null;var x=function(){var t={\\\"\\\":0},e=[\\\"\\\"];return{id:function(r){var n=t[r];return n||(n=t[r]=e.length,e.push(r),n)},str:function(t){return e[t]}}}(),b={bufferCount:0,elementsCount:0,framebufferCount:0,shaderCount:0,textureCount:0,cubeCount:0,renderbufferCount:0,maxTextureUnits:0},_=y.extensions,w=function(t,e){function r(){this.endQueryIndex=this.startQueryIndex=-1,this.sum=0,this.stats=null}function n(t,e,n){var i=o.pop()||new r;i.startQueryIndex=t,i.endQueryIndex=e,i.sum=0,i.stats=n,s.push(i)}if(!e.ext_disjoint_timer_query)return null;var i=[],a=[],o=[],s=[],l=[],c=[];return{beginQuery:function(t){var r=i.pop()||e.ext_disjoint_timer_query.createQueryEXT();e.ext_disjoint_timer_query.beginQueryEXT(35007,r),a.push(r),n(a.length-1,a.length,t)},endQuery:function(){e.ext_disjoint_timer_query.endQueryEXT(35007)},pushScopeStats:n,update:function(){var t,r;if(0!==(t=a.length)){c.length=Math.max(c.length,t+1),l.length=Math.max(l.length,t+1),l[0]=0;var n=c[0]=0;for(r=t=0;r<a.length;++r){var u=a[r];e.ext_disjoint_timer_query.getQueryObjectEXT(u,34919)?(n+=e.ext_disjoint_timer_query.getQueryObjectEXT(u,34918),i.push(u)):a[t++]=u,l[r+1]=n,c[r+1]=t}for(a.length=t,r=t=0;r<s.length;++r){var f=(n=s[r]).startQueryIndex;u=n.endQueryIndex,n.sum+=l[u]-l[f],f=c[f],(u=c[u])===f?(n.stats.gpuTime+=n.sum/1e6,o.push(n)):(n.startQueryIndex=f,n.endQueryIndex=u,s[t++]=n)}s.length=t}},getNumPendingQueries:function(){return a.length},clear:function(){i.push.apply(i,a);for(var t=0;t<i.length;t++)e.ext_disjoint_timer_query.deleteQueryEXT(i[t]);a.length=0,i.length=0},restore:function(){a.length=0,i.length=0}}}(0,_),k=q(),C=v.drawingBufferWidth,L=v.drawingBufferHeight,z={tick:0,time:0,viewportWidth:C,viewportHeight:L,framebufferWidth:C,framebufferHeight:L,drawingBufferWidth:C,drawingBufferHeight:L,pixelRatio:t.pixelRatio},O=Y(v,_),I=(C=function(t,e,r,n){for(t=r.maxAttributes,e=Array(t),r=0;r<t;++r)e[r]=new M;return{Record:M,scope:{},state:e}}(v,_,O),p(v,b,t,C)),D=d(v,_,I,b),P=S(v,x,b,t),R=T(v,_,O,function(){G.procs.poll()},z,b,t),F=mt(v,_,0,b,t),V=A(v,_,O,R,F,b),G=B(v,x,_,O,I,D,0,V,{},C,P,{elements:null,primitive:4,count:-1,offset:0,instances:-1},z,w,t),W=(x=E(v,V,G.procs.poll,z),G.next),X=v.canvas,Z=[],$=[],J=[],K=[t.onDestroy],Q=null;X&&(X.addEventListener(\\\"webglcontextlost\\\",a,!1),X.addEventListener(\\\"webglcontextrestored\\\",o,!1));var tt=V.setFBO=s({framebuffer:U.define.call(null,1,\\\"framebuffer\\\")});return h(),m=j(s,{clear:function(t){if(\\\"framebuffer\\\"in t)if(t.framebuffer&&\\\"framebufferCube\\\"===t.framebuffer_reglType)for(var e=0;6>e;++e)tt(j({framebuffer:t.framebuffer.faces[e]},t),l);else tt(t,l);else l(0,t)},prop:U.define.bind(null,1),context:U.define.bind(null,2),this:U.define.bind(null,3),draw:s({}),buffer:function(t){return I.create(t,34962,!1,!1)},elements:function(t){return D.create(t,!1)},texture:R.create2D,cube:R.createCube,renderbuffer:F.create,framebuffer:V.create,framebufferCube:V.createCube,attributes:m,frame:c,on:function(t,e){var r;switch(t){case\\\"frame\\\":return c(e);case\\\"lost\\\":r=$;break;case\\\"restore\\\":r=J;break;case\\\"destroy\\\":r=K}return r.push(e),{cancel:function(){for(var t=0;t<r.length;++t)if(r[t]===e){r[t]=r[r.length-1],r.pop();break}}}},limits:O,hasExtension:function(t){return 0<=O.extensions.indexOf(t.toLowerCase())},read:x,destroy:function(){Z.length=0,n(),X&&(X.removeEventListener(\\\"webglcontextlost\\\",a),X.removeEventListener(\\\"webglcontextrestored\\\",o)),P.clear(),V.clear(),F.clear(),R.clear(),D.clear(),I.clear(),w&&w.clear(),K.forEach(function(t){t()})},_gl:v,_refresh:h,poll:function(){f(),w&&w.update()},now:g,stats:b}),t.onDone(null,m),m}},\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?e.exports=i():n.createREGL=i()},{}],490:[function(t,e,r){\\\"use strict\\\";var n,i=\\\"\\\";e.exports=function(t,e){if(\\\"string\\\"!=typeof t)throw new TypeError(\\\"expected a string\\\");if(1===e)return t;if(2===e)return t+t;var r=t.length*e;if(n!==t||\\\"undefined\\\"==typeof n)n=t,i=\\\"\\\";else if(i.length>=r)return i.substr(0,r);for(;r>i.length&&e>1;)1&e&&(i+=t),e>>=1,t+=t;return i=(i+=t).substr(0,r)}},{}],491:[function(t,e,r){(function(t){e.exports=t.performance&&t.performance.now?function(){return performance.now()}:Date.now||function(){return+new Date}}).call(this,\\\"undefined\\\"!=typeof global?global:\\\"undefined\\\"!=typeof self?self:\\\"undefined\\\"!=typeof window?window:{})},{}],492:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){for(var e=t.length,r=t[t.length-1],n=e,i=e-2;i>=0;--i){var a=r,o=t[i],s=(r=a+o)-a,l=o-s;l&&(t[--n]=r,r=l)}for(var c=0,i=n;i<e;++i){var a=t[i],o=r,s=(r=a+o)-a,l=o-s;l&&(t[c++]=l)}return t[c++]=r,t.length=c,t}},{}],493:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"two-product\\\"),i=t(\\\"robust-sum\\\"),a=t(\\\"robust-scale\\\"),o=t(\\\"robust-compress\\\"),s=6;function l(t,e){for(var r=new Array(t.length-1),n=1;n<t.length;++n)for(var i=r[n-1]=new Array(t.length-1),a=0,o=0;a<t.length;++a)a!==e&&(i[o++]=t[n][a]);return r}function c(t){if(2===t.length)return[\\\"sum(prod(\\\",t[0][0],\\\",\\\",t[1][1],\\\"),prod(-\\\",t[0][1],\\\",\\\",t[1][0],\\\"))\\\"].join(\\\"\\\");for(var e=[],r=0;r<t.length;++r)e.push([\\\"scale(\\\",c(l(t,r)),\\\",\\\",(n=r,1&n?\\\"-\\\":\\\"\\\"),t[0][r],\\\")\\\"].join(\\\"\\\"));return function t(e){if(1===e.length)return e[0];if(2===e.length)return[\\\"sum(\\\",e[0],\\\",\\\",e[1],\\\")\\\"].join(\\\"\\\");var r=e.length>>1;return[\\\"sum(\\\",t(e.slice(0,r)),\\\",\\\",t(e.slice(r)),\\\")\\\"].join(\\\"\\\")}(e);var n}function u(t){return new Function(\\\"sum\\\",\\\"scale\\\",\\\"prod\\\",\\\"compress\\\",[\\\"function robustDeterminant\\\",t,\\\"(m){return compress(\\\",c(function(t){for(var e=new Array(t),r=0;r<t;++r){e[r]=new Array(t);for(var n=0;n<t;++n)e[r][n]=[\\\"m[\\\",r,\\\"][\\\",n,\\\"]\\\"].join(\\\"\\\")}return e}(t)),\\\")};return robustDeterminant\\\",t].join(\\\"\\\"))(i,a,n,o)}var f=[function(){return[0]},function(t){return[t[0][0]]}];!function(){for(;f.length<s;)f.push(u(f.length));for(var t=[],r=[\\\"function robustDeterminant(m){switch(m.length){\\\"],n=0;n<s;++n)t.push(\\\"det\\\"+n),r.push(\\\"case \\\",n,\\\":return det\\\",n,\\\"(m);\\\");r.push(\\\"}var det=CACHE[m.length];if(!det)det=CACHE[m.length]=gen(m.length);return det(m);}return robustDeterminant\\\"),t.push(\\\"CACHE\\\",\\\"gen\\\",r.join(\\\"\\\"));var i=Function.apply(void 0,t);for(e.exports=i.apply(void 0,f.concat([f,u])),n=0;n<f.length;++n)e.exports[n]=f[n]}()},{\\\"robust-compress\\\":492,\\\"robust-scale\\\":499,\\\"robust-sum\\\":502,\\\"two-product\\\":530}],494:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"two-product\\\"),i=t(\\\"robust-sum\\\");e.exports=function(t,e){for(var r=n(t[0],e[0]),a=1;a<t.length;++a)r=i(r,n(t[a],e[a]));return r}},{\\\"robust-sum\\\":502,\\\"two-product\\\":530}],495:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"two-product\\\"),i=t(\\\"robust-sum\\\"),a=t(\\\"robust-subtract\\\"),o=t(\\\"robust-scale\\\"),s=6;function l(t,e){for(var r=new Array(t.length-1),n=1;n<t.length;++n)for(var i=r[n-1]=new Array(t.length-1),a=0,o=0;a<t.length;++a)a!==e&&(i[o++]=t[n][a]);return r}function c(t){if(1===t.length)return t[0];if(2===t.length)return[\\\"sum(\\\",t[0],\\\",\\\",t[1],\\\")\\\"].join(\\\"\\\");var e=t.length>>1;return[\\\"sum(\\\",c(t.slice(0,e)),\\\",\\\",c(t.slice(e)),\\\")\\\"].join(\\\"\\\")}function u(t,e){if(\\\"m\\\"===t.charAt(0)){if(\\\"w\\\"===e.charAt(0)){var r=t.split(\\\"[\\\");return[\\\"w\\\",e.substr(1),\\\"m\\\",r[0].substr(1)].join(\\\"\\\")}return[\\\"prod(\\\",t,\\\",\\\",e,\\\")\\\"].join(\\\"\\\")}return u(e,t)}function f(t){if(2===t.length)return[[\\\"diff(\\\",u(t[0][0],t[1][1]),\\\",\\\",u(t[1][0],t[0][1]),\\\")\\\"].join(\\\"\\\")];for(var e=[],r=0;r<t.length;++r)e.push([\\\"scale(\\\",c(f(l(t,r))),\\\",\\\",(n=r,!0&n?\\\"-\\\":\\\"\\\"),t[0][r],\\\")\\\"].join(\\\"\\\"));return e;var n}function h(t,e){for(var r=[],n=0;n<e-2;++n)r.push([\\\"prod(m\\\",t,\\\"[\\\",n,\\\"],m\\\",t,\\\"[\\\",n,\\\"])\\\"].join(\\\"\\\"));return c(r)}function p(t){for(var e=[],r=[],s=function(t){for(var e=new Array(t),r=0;r<t;++r){e[r]=new Array(t);for(var n=0;n<t;++n)e[r][n]=[\\\"m\\\",n,\\\"[\\\",t-r-2,\\\"]\\\"].join(\\\"\\\")}return e}(t),u=0;u<t;++u)s[0][u]=\\\"1\\\",s[t-1][u]=\\\"w\\\"+u;for(u=0;u<t;++u)0==(1&u)?e.push.apply(e,f(l(s,u))):r.push.apply(r,f(l(s,u)));var p=c(e),d=c(r),g=\\\"exactInSphere\\\"+t,v=[];for(u=0;u<t;++u)v.push(\\\"m\\\"+u);var m=[\\\"function \\\",g,\\\"(\\\",v.join(),\\\"){\\\"];for(u=0;u<t;++u){m.push(\\\"var w\\\",u,\\\"=\\\",h(u,t),\\\";\\\");for(var y=0;y<t;++y)y!==u&&m.push(\\\"var w\\\",u,\\\"m\\\",y,\\\"=scale(w\\\",u,\\\",m\\\",y,\\\"[0]);\\\")}return m.push(\\\"var p=\\\",p,\\\",n=\\\",d,\\\",d=diff(p,n);return d[d.length-1];}return \\\",g),new Function(\\\"sum\\\",\\\"diff\\\",\\\"prod\\\",\\\"scale\\\",m.join(\\\"\\\"))(i,a,n,o)}var d=[function(){return 0},function(){return 0},function(){return 0}];!function(){for(;d.length<=s;)d.push(p(d.length));for(var t=[],r=[\\\"slow\\\"],n=0;n<=s;++n)t.push(\\\"a\\\"+n),r.push(\\\"o\\\"+n);var i=[\\\"function testInSphere(\\\",t.join(),\\\"){switch(arguments.length){case 0:case 1:return 0;\\\"];for(n=2;n<=s;++n)i.push(\\\"case \\\",n,\\\":return o\\\",n,\\\"(\\\",t.slice(0,n).join(),\\\");\\\");i.push(\\\"}var s=new Array(arguments.length);for(var i=0;i<arguments.length;++i){s[i]=arguments[i]};return slow(s);}return testInSphere\\\"),r.push(i.join(\\\"\\\"));var a=Function.apply(void 0,r);for(e.exports=a.apply(void 0,[function(t){var e=d[t.length];return e||(e=d[t.length]=p(t.length)),e.apply(void 0,t)}].concat(d)),n=0;n<=s;++n)e.exports[n]=d[n]}()},{\\\"robust-scale\\\":499,\\\"robust-subtract\\\":501,\\\"robust-sum\\\":502,\\\"two-product\\\":530}],496:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"robust-determinant\\\"),i=6;function a(t){for(var e=\\\"robustLinearSolve\\\"+t+\\\"d\\\",r=[\\\"function \\\",e,\\\"(A,b){return [\\\"],i=0;i<t;++i){r.push(\\\"det([\\\");for(var a=0;a<t;++a){a>0&&r.push(\\\",\\\"),r.push(\\\"[\\\");for(var o=0;o<t;++o)o>0&&r.push(\\\",\\\"),o===i?r.push(\\\"+b[\\\",a,\\\"]\\\"):r.push(\\\"+A[\\\",a,\\\"][\\\",o,\\\"]\\\");r.push(\\\"]\\\")}r.push(\\\"]),\\\")}r.push(\\\"det(A)]}return \\\",e);var s=new Function(\\\"det\\\",r.join(\\\"\\\"));return s(t<6?n[t]:n)}var o=[function(){return[0]},function(t,e){return[[e[0]],[t[0][0]]]}];!function(){for(;o.length<i;)o.push(a(o.length));for(var t=[],r=[\\\"function dispatchLinearSolve(A,b){switch(A.length){\\\"],n=0;n<i;++n)t.push(\\\"s\\\"+n),r.push(\\\"case \\\",n,\\\":return s\\\",n,\\\"(A,b);\\\");r.push(\\\"}var s=CACHE[A.length];if(!s)s=CACHE[A.length]=g(A.length);return s(A,b)}return dispatchLinearSolve\\\"),t.push(\\\"CACHE\\\",\\\"g\\\",r.join(\\\"\\\"));var s=Function.apply(void 0,t);for(e.exports=s.apply(void 0,o.concat([o,a])),n=0;n<i;++n)e.exports[n]=o[n]}()},{\\\"robust-determinant\\\":493}],497:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"two-product\\\"),i=t(\\\"robust-sum\\\"),a=t(\\\"robust-scale\\\"),o=t(\\\"robust-subtract\\\"),s=5;function l(t,e){for(var r=new Array(t.length-1),n=1;n<t.length;++n)for(var i=r[n-1]=new Array(t.length-1),a=0,o=0;a<t.length;++a)a!==e&&(i[o++]=t[n][a]);return r}function c(t){if(1===t.length)return t[0];if(2===t.length)return[\\\"sum(\\\",t[0],\\\",\\\",t[1],\\\")\\\"].join(\\\"\\\");var e=t.length>>1;return[\\\"sum(\\\",c(t.slice(0,e)),\\\",\\\",c(t.slice(e)),\\\")\\\"].join(\\\"\\\")}function u(t){if(2===t.length)return[[\\\"sum(prod(\\\",t[0][0],\\\",\\\",t[1][1],\\\"),prod(-\\\",t[0][1],\\\",\\\",t[1][0],\\\"))\\\"].join(\\\"\\\")];for(var e=[],r=0;r<t.length;++r)e.push([\\\"scale(\\\",c(u(l(t,r))),\\\",\\\",(n=r,1&n?\\\"-\\\":\\\"\\\"),t[0][r],\\\")\\\"].join(\\\"\\\"));return e;var n}function f(t){for(var e=[],r=[],s=function(t){for(var e=new Array(t),r=0;r<t;++r){e[r]=new Array(t);for(var n=0;n<t;++n)e[r][n]=[\\\"m\\\",n,\\\"[\\\",t-r-1,\\\"]\\\"].join(\\\"\\\")}return e}(t),f=[],h=0;h<t;++h)0==(1&h)?e.push.apply(e,u(l(s,h))):r.push.apply(r,u(l(s,h))),f.push(\\\"m\\\"+h);var p=c(e),d=c(r),g=\\\"orientation\\\"+t+\\\"Exact\\\",v=[\\\"function \\\",g,\\\"(\\\",f.join(),\\\"){var p=\\\",p,\\\",n=\\\",d,\\\",d=sub(p,n);return d[d.length-1];};return \\\",g].join(\\\"\\\");return new Function(\\\"sum\\\",\\\"prod\\\",\\\"scale\\\",\\\"sub\\\",v)(i,n,a,o)}var h=f(3),p=f(4),d=[function(){return 0},function(){return 0},function(t,e){return e[0]-t[0]},function(t,e,r){var n,i=(t[1]-r[1])*(e[0]-r[0]),a=(t[0]-r[0])*(e[1]-r[1]),o=i-a;if(i>0){if(a<=0)return o;n=i+a}else{if(!(i<0))return o;if(a>=0)return o;n=-(i+a)}var s=3.3306690738754716e-16*n;return o>=s||o<=-s?o:h(t,e,r)},function(t,e,r,n){var i=t[0]-n[0],a=e[0]-n[0],o=r[0]-n[0],s=t[1]-n[1],l=e[1]-n[1],c=r[1]-n[1],u=t[2]-n[2],f=e[2]-n[2],h=r[2]-n[2],d=a*c,g=o*l,v=o*s,m=i*c,y=i*l,x=a*s,b=u*(d-g)+f*(v-m)+h*(y-x),_=7.771561172376103e-16*((Math.abs(d)+Math.abs(g))*Math.abs(u)+(Math.abs(v)+Math.abs(m))*Math.abs(f)+(Math.abs(y)+Math.abs(x))*Math.abs(h));return b>_||-b>_?b:p(t,e,r,n)}];!function(){for(;d.length<=s;)d.push(f(d.length));for(var t=[],r=[\\\"slow\\\"],n=0;n<=s;++n)t.push(\\\"a\\\"+n),r.push(\\\"o\\\"+n);var i=[\\\"function getOrientation(\\\",t.join(),\\\"){switch(arguments.length){case 0:case 1:return 0;\\\"];for(n=2;n<=s;++n)i.push(\\\"case \\\",n,\\\":return o\\\",n,\\\"(\\\",t.slice(0,n).join(),\\\");\\\");i.push(\\\"}var s=new Array(arguments.length);for(var i=0;i<arguments.length;++i){s[i]=arguments[i]};return slow(s);}return getOrientation\\\"),r.push(i.join(\\\"\\\"));var a=Function.apply(void 0,r);for(e.exports=a.apply(void 0,[function(t){var e=d[t.length];return e||(e=d[t.length]=f(t.length)),e.apply(void 0,t)}].concat(d)),n=0;n<=s;++n)e.exports[n]=d[n]}()},{\\\"robust-scale\\\":499,\\\"robust-subtract\\\":501,\\\"robust-sum\\\":502,\\\"two-product\\\":530}],498:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"robust-sum\\\"),i=t(\\\"robust-scale\\\");e.exports=function(t,e){if(1===t.length)return i(e,t[0]);if(1===e.length)return i(t,e[0]);if(0===t.length||0===e.length)return[0];var r=[0];if(t.length<e.length)for(var a=0;a<t.length;++a)r=n(r,i(e,t[a]));else for(var a=0;a<e.length;++a)r=n(r,i(t,e[a]));return r}},{\\\"robust-scale\\\":499,\\\"robust-sum\\\":502}],499:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"two-product\\\"),i=t(\\\"two-sum\\\");e.exports=function(t,e){var r=t.length;if(1===r){var a=n(t[0],e);return a[0]?a:[a[1]]}var o=new Array(2*r),s=[.1,.1],l=[.1,.1],c=0;n(t[0],e,s),s[0]&&(o[c++]=s[0]);for(var u=1;u<r;++u){n(t[u],e,l);var f=s[1];i(f,l[0],s),s[0]&&(o[c++]=s[0]);var h=l[1],p=s[1],d=h+p,g=d-h,v=p-g;s[1]=d,v&&(o[c++]=v)}s[1]&&(o[c++]=s[1]);0===c&&(o[c++]=0);return o.length=c,o}},{\\\"two-product\\\":530,\\\"two-sum\\\":531}],500:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,i){var a=n(t,r,i),o=n(e,r,i);if(a>0&&o>0||a<0&&o<0)return!1;var s=n(r,t,e),l=n(i,t,e);if(s>0&&l>0||s<0&&l<0)return!1;if(0===a&&0===o&&0===s&&0===l)return function(t,e,r,n){for(var i=0;i<2;++i){var a=t[i],o=e[i],s=Math.min(a,o),l=Math.max(a,o),c=r[i],u=n[i],f=Math.min(c,u),h=Math.max(c,u);if(h<s||l<f)return!1}return!0}(t,e,r,i);return!0};var n=t(\\\"robust-orientation\\\")[3]},{\\\"robust-orientation\\\":497}],501:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){var r=0|t.length,n=0|e.length;if(1===r&&1===n)return function(t,e){var r=t+e,n=r-t,i=t-(r-n)+(e-n);if(i)return[i,r];return[r]}(t[0],-e[0]);var i,a,o=new Array(r+n),s=0,l=0,c=0,u=Math.abs,f=t[l],h=u(f),p=-e[c],d=u(p);h<d?(a=f,(l+=1)<r&&(f=t[l],h=u(f))):(a=p,(c+=1)<n&&(p=-e[c],d=u(p)));l<r&&h<d||c>=n?(i=f,(l+=1)<r&&(f=t[l],h=u(f))):(i=p,(c+=1)<n&&(p=-e[c],d=u(p)));var g,v,m=i+a,y=m-i,x=a-y,b=x,_=m;for(;l<r&&c<n;)h<d?(i=f,(l+=1)<r&&(f=t[l],h=u(f))):(i=p,(c+=1)<n&&(p=-e[c],d=u(p))),(x=(a=b)-(y=(m=i+a)-i))&&(o[s++]=x),b=_-((g=_+m)-(v=g-_))+(m-v),_=g;for(;l<r;)(x=(a=b)-(y=(m=(i=f)+a)-i))&&(o[s++]=x),b=_-((g=_+m)-(v=g-_))+(m-v),_=g,(l+=1)<r&&(f=t[l]);for(;c<n;)(x=(a=b)-(y=(m=(i=p)+a)-i))&&(o[s++]=x),b=_-((g=_+m)-(v=g-_))+(m-v),_=g,(c+=1)<n&&(p=-e[c]);b&&(o[s++]=b);_&&(o[s++]=_);s||(o[s++]=0);return o.length=s,o}},{}],502:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){var r=0|t.length,n=0|e.length;if(1===r&&1===n)return function(t,e){var r=t+e,n=r-t,i=t-(r-n)+(e-n);if(i)return[i,r];return[r]}(t[0],e[0]);var i,a,o=new Array(r+n),s=0,l=0,c=0,u=Math.abs,f=t[l],h=u(f),p=e[c],d=u(p);h<d?(a=f,(l+=1)<r&&(f=t[l],h=u(f))):(a=p,(c+=1)<n&&(p=e[c],d=u(p)));l<r&&h<d||c>=n?(i=f,(l+=1)<r&&(f=t[l],h=u(f))):(i=p,(c+=1)<n&&(p=e[c],d=u(p)));var g,v,m=i+a,y=m-i,x=a-y,b=x,_=m;for(;l<r&&c<n;)h<d?(i=f,(l+=1)<r&&(f=t[l],h=u(f))):(i=p,(c+=1)<n&&(p=e[c],d=u(p))),(x=(a=b)-(y=(m=i+a)-i))&&(o[s++]=x),b=_-((g=_+m)-(v=g-_))+(m-v),_=g;for(;l<r;)(x=(a=b)-(y=(m=(i=f)+a)-i))&&(o[s++]=x),b=_-((g=_+m)-(v=g-_))+(m-v),_=g,(l+=1)<r&&(f=t[l]);for(;c<n;)(x=(a=b)-(y=(m=(i=p)+a)-i))&&(o[s++]=x),b=_-((g=_+m)-(v=g-_))+(m-v),_=g,(c+=1)<n&&(p=e[c]);b&&(o[s++]=b);_&&(o[s++]=_);s||(o[s++]=0);return o.length=s,o}},{}],503:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){return t<0?-1:t>0?1:0}},{}],504:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){return i(n(t))};var n=t(\\\"boundary-cells\\\"),i=t(\\\"reduce-simplicial-complex\\\")},{\\\"boundary-cells\\\":88,\\\"reduce-simplicial-complex\\\":484}],505:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,s){r=r||0,\\\"undefined\\\"==typeof s&&(s=function(t){for(var e=t.length,r=0,n=0;n<e;++n)r=0|Math.max(r,t[n].length);return r-1}(t));if(0===t.length||s<1)return{cells:[],vertexIds:[],vertexWeights:[]};var l=function(t,e){for(var r=t.length,n=i.mallocUint8(r),a=0;a<r;++a)n[a]=t[a]<e|0;return n}(e,+r),c=function(t,e){for(var r=t.length,o=e*(e+1)/2*r|0,s=i.mallocUint32(2*o),l=0,c=0;c<r;++c)for(var u=t[c],e=u.length,f=0;f<e;++f)for(var h=0;h<f;++h){var p=u[h],d=u[f];s[l++]=0|Math.min(p,d),s[l++]=0|Math.max(p,d)}a(n(s,[l/2|0,2]));for(var g=2,c=2;c<l;c+=2)s[c-2]===s[c]&&s[c-1]===s[c+1]||(s[g++]=s[c],s[g++]=s[c+1]);return n(s,[g/2|0,2])}(t,s),u=function(t,e,r,a){for(var o=t.data,s=t.shape[0],l=i.mallocDouble(s),c=0,u=0;u<s;++u){var f=o[2*u],h=o[2*u+1];if(r[f]!==r[h]){var p=e[f],d=e[h];o[2*c]=f,o[2*c+1]=h,l[c++]=(d-a)/(d-p)}}return t.shape[0]=c,n(l,[c])}(c,e,l,+r),f=function(t,e){var r=i.mallocInt32(2*e),n=t.shape[0],a=t.data;r[0]=0;for(var o=0,s=0;s<n;++s){var l=a[2*s];if(l!==o){for(r[2*o+1]=s;++o<l;)r[2*o]=s,r[2*o+1]=s;r[2*o]=s}}r[2*o+1]=n;for(;++o<e;)r[2*o]=r[2*o+1]=n;return r}(c,0|e.length),h=o(s)(t,c.data,f,l),p=function(t){for(var e=0|t.shape[0],r=t.data,n=new Array(e),i=0;i<e;++i)n[i]=[r[2*i],r[2*i+1]];return n}(c),d=[].slice.call(u.data,0,u.shape[0]);return i.free(l),i.free(c.data),i.free(u.data),i.free(f),{cells:h,vertexIds:p,vertexWeights:d}};var n=t(\\\"ndarray\\\"),i=t(\\\"typedarray-pool\\\"),a=t(\\\"ndarray-sort\\\"),o=t(\\\"./lib/codegen\\\")},{\\\"./lib/codegen\\\":506,ndarray:445,\\\"ndarray-sort\\\":443,\\\"typedarray-pool\\\":532}],506:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=a[t];e||(e=a[t]=function(t){var e=0,r=new Array(t+1);r[0]=[[]];for(var a=1;a<=t;++a)for(var o=r[a]=i(a),s=0;s<o.length;++s)e=Math.max(e,o[a].length);var l=[\\\"function B(C,E,i,j){\\\",\\\"var a=Math.min(i,j)|0,b=Math.max(i,j)|0,l=C[2*a],h=C[2*a+1];\\\",\\\"while(l<h){\\\",\\\"var m=(l+h)>>1,v=E[2*m+1];\\\",\\\"if(v===b){return m}\\\",\\\"if(b<v){h=m}else{l=m+1}\\\",\\\"}\\\",\\\"return l;\\\",\\\"};\\\",\\\"function getContour\\\",t,\\\"d(F,E,C,S){\\\",\\\"var n=F.length,R=[];\\\",\\\"for(var i=0;i<n;++i){var c=F[i],l=c.length;\\\"];function c(t){if(!(t.length<=0)){l.push(\\\"R.push(\\\");for(var e=0;e<t.length;++e){var r=t[e];e>0&&l.push(\\\",\\\"),l.push(\\\"[\\\");for(var n=0;n<r.length;++n){var i=r[n];n>0&&l.push(\\\",\\\"),l.push(\\\"B(C,E,c[\\\",i[0],\\\"],c[\\\",i[1],\\\"])\\\")}l.push(\\\"]\\\")}l.push(\\\");\\\")}}for(var a=t+1;a>1;--a){a<t+1&&l.push(\\\"else \\\"),l.push(\\\"if(l===\\\",a,\\\"){\\\");for(var u=[],s=0;s<a;++s)u.push(\\\"(S[c[\\\"+s+\\\"]]<<\\\"+s+\\\")\\\");l.push(\\\"var M=\\\",u.join(\\\"+\\\"),\\\";if(M===0||M===\\\",(1<<a)-1,\\\"){continue}switch(M){\\\");for(var o=r[a-1],s=0;s<o.length;++s)l.push(\\\"case \\\",s,\\\":\\\"),c(o[s]),l.push(\\\"break;\\\");l.push(\\\"}}\\\")}return l.push(\\\"}return R;};return getContour\\\",t,\\\"d\\\"),new Function(\\\"pool\\\",l.join(\\\"\\\"))(n)}(t));return e};var n=t(\\\"typedarray-pool\\\"),i=t(\\\"marching-simplex-table\\\"),a={}},{\\\"marching-simplex-table\\\":422,\\\"typedarray-pool\\\":532}],507:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"bit-twiddle\\\"),i=t(\\\"union-find\\\");function a(t,e){var r=t.length,n=t.length-e.length,i=Math.min;if(n)return n;switch(r){case 0:return 0;case 1:return t[0]-e[0];case 2:return(s=t[0]+t[1]-e[0]-e[1])||i(t[0],t[1])-i(e[0],e[1]);case 3:var a=t[0]+t[1],o=e[0]+e[1];if(s=a+t[2]-(o+e[2]))return s;var s,l=i(t[0],t[1]),c=i(e[0],e[1]);return(s=i(l,t[2])-i(c,e[2]))||i(l+t[2],a)-i(c+e[2],o);default:var u=t.slice(0);u.sort();var f=e.slice(0);f.sort();for(var h=0;h<r;++h)if(n=u[h]-f[h])return n;return 0}}function o(t,e){return a(t[0],e[0])}function s(t,e){if(e){for(var r=t.length,n=new Array(r),i=0;i<r;++i)n[i]=[t[i],e[i]];n.sort(o);for(i=0;i<r;++i)t[i]=n[i][0],e[i]=n[i][1];return t}return t.sort(a),t}function l(t){if(0===t.length)return[];for(var e=1,r=t.length,n=1;n<r;++n){var i=t[n];if(a(i,t[n-1])){if(n===e){e++;continue}t[e++]=i}}return t.length=e,t}function c(t,e){for(var r=0,n=t.length-1,i=-1;r<=n;){var o=r+n>>1,s=a(t[o],e);s<=0?(0===s&&(i=o),r=o+1):s>0&&(n=o-1)}return i}function u(t,e){for(var r=new Array(t.length),i=0,o=r.length;i<o;++i)r[i]=[];for(var s=[],l=(i=0,e.length);i<l;++i)for(var u=e[i],f=u.length,h=1,p=1<<f;h<p;++h){s.length=n.popCount(h);for(var d=0,g=0;g<f;++g)h&1<<g&&(s[d++]=u[g]);var v=c(t,s);if(!(v<0))for(;r[v++].push(i),!(v>=t.length||0!==a(t[v],s)););}return r}function f(t,e){if(e<0)return[];for(var r=[],i=(1<<e+1)-1,a=0;a<t.length;++a)for(var o=t[a],l=i;l<1<<o.length;l=n.nextCombination(l)){for(var c=new Array(e+1),u=0,f=0;f<o.length;++f)l&1<<f&&(c[u++]=o[f]);r.push(c)}return s(r)}r.dimension=function(t){for(var e=0,r=Math.max,n=0,i=t.length;n<i;++n)e=r(e,t[n].length);return e-1},r.countVertices=function(t){for(var e=-1,r=Math.max,n=0,i=t.length;n<i;++n)for(var a=t[n],o=0,s=a.length;o<s;++o)e=r(e,a[o]);return e+1},r.cloneCells=function(t){for(var e=new Array(t.length),r=0,n=t.length;r<n;++r)e[r]=t[r].slice(0);return e},r.compareCells=a,r.normalize=s,r.unique=l,r.findCell=c,r.incidence=u,r.dual=function(t,e){if(!e)return u(l(f(t,0)),t);for(var r=new Array(e),n=0;n<e;++n)r[n]=[];n=0;for(var i=t.length;n<i;++n)for(var a=t[n],o=0,s=a.length;o<s;++o)r[a[o]].push(n);return r},r.explode=function(t){for(var e=[],r=0,n=t.length;r<n;++r)for(var i=t[r],a=0|i.length,o=1,l=1<<a;o<l;++o){for(var c=[],u=0;u<a;++u)o>>>u&1&&c.push(i[u]);e.push(c)}return s(e)},r.skeleton=f,r.boundary=function(t){for(var e=[],r=0,n=t.length;r<n;++r)for(var i=t[r],a=0,o=i.length;a<o;++a){for(var l=new Array(i.length-1),c=0,u=0;c<o;++c)c!==a&&(l[u++]=i[c]);e.push(l)}return s(e)},r.connectedComponents=function(t,e){return e?function(t,e){for(var r=new i(e),n=0;n<t.length;++n)for(var a=t[n],o=0;o<a.length;++o)for(var s=o+1;s<a.length;++s)r.link(a[o],a[s]);var l=[],c=r.ranks;for(n=0;n<c.length;++n)c[n]=-1;for(n=0;n<t.length;++n){var u=r.find(t[n][0]);c[u]<0?(c[u]=l.length,l.push([t[n].slice(0)])):l[c[u]].push(t[n].slice(0))}return l}(t,e):function(t){for(var e=l(s(f(t,0))),r=new i(e.length),n=0;n<t.length;++n)for(var a=t[n],o=0;o<a.length;++o)for(var u=c(e,[a[o]]),h=o+1;h<a.length;++h)r.link(u,c(e,[a[h]]));var p=[],d=r.ranks;for(n=0;n<d.length;++n)d[n]=-1;for(n=0;n<t.length;++n){var g=r.find(c(e,[t[n][0]]));d[g]<0?(d[g]=p.length,p.push([t[n].slice(0)])):p[d[g]].push(t[n].slice(0))}return p}(t)}},{\\\"bit-twiddle\\\":85,\\\"union-find\\\":533}],508:[function(t,e,r){arguments[4][85][0].apply(r,arguments)},{dup:85}],509:[function(t,e,r){arguments[4][507][0].apply(r,arguments)},{\\\"bit-twiddle\\\":508,dup:507,\\\"union-find\\\":510}],510:[function(t,e,r){\\\"use strict\\\";function n(t){this.roots=new Array(t),this.ranks=new Array(t);for(var e=0;e<t;++e)this.roots[e]=e,this.ranks[e]=0}e.exports=n,n.prototype.length=function(){return this.roots.length},n.prototype.makeSet=function(){var t=this.roots.length;return this.roots.push(t),this.ranks.push(0),t},n.prototype.find=function(t){for(var e=this.roots;e[t]!==t;){var r=e[t];e[t]=e[r],t=r}return t},n.prototype.link=function(t,e){var r=this.find(t),n=this.find(e);if(r!==n){var i=this.ranks,a=this.roots,o=i[r],s=i[n];o<s?a[r]=n:s<o?a[n]=r:(a[n]=r,++i[r])}}},{}],511:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){for(var a=e.length,o=t.length,s=new Array(a),l=new Array(a),c=new Array(a),u=new Array(a),f=0;f<a;++f)s[f]=l[f]=-1,c[f]=1/0,u[f]=!1;for(var f=0;f<o;++f){var h=t[f];if(2!==h.length)throw new Error(\\\"Input must be a graph\\\");var p=h[1],d=h[0];-1!==l[d]?l[d]=-2:l[d]=p,-1!==s[p]?s[p]=-2:s[p]=d}function g(t){if(u[t])return 1/0;var r,i,a,o,c,f=s[t],h=l[t];return f<0||h<0?1/0:(r=e[t],i=e[f],a=e[h],o=Math.abs(n(r,i,a)),c=Math.sqrt(Math.pow(i[0]-a[0],2)+Math.pow(i[1]-a[1],2)),o/c)}function v(t,e){var r=T[t],n=T[e];T[t]=n,T[e]=r,A[r]=e,A[n]=t}function m(t){return c[T[t]]}function y(t){return 1&t?t-1>>1:(t>>1)-1}function x(t){for(var e=m(t);;){var r=e,n=2*t+1,i=2*(t+1),a=t;if(n<S){var o=m(n);o<r&&(a=n,r=o)}if(i<S){var s=m(i);s<r&&(a=i)}if(a===t)return t;v(t,a),t=a}}function b(t){for(var e=m(t);t>0;){var r=y(t);if(r>=0){var n=m(r);if(e<n){v(t,r),t=r;continue}}return t}}function _(){if(S>0){var t=T[0];return v(0,S-1),S-=1,x(0),t}return-1}function w(t,e){var r=T[t];return c[r]===e?t:(c[r]=-1/0,b(t),_(),c[r]=e,b((S+=1)-1))}function k(t){if(!u[t]){u[t]=!0;var e=s[t],r=l[t];s[r]>=0&&(s[r]=e),l[e]>=0&&(l[e]=r),A[e]>=0&&w(A[e],g(e)),A[r]>=0&&w(A[r],g(r))}}for(var T=[],A=new Array(a),f=0;f<a;++f){var M=c[f]=g(f);M<1/0?(A[f]=T.length,T.push(f)):A[f]=-1}for(var S=T.length,f=S>>1;f>=0;--f)x(f);for(;;){var E=_();if(E<0||c[E]>r)break;k(E)}for(var C=[],f=0;f<a;++f)u[f]||(A[f]=C.length,C.push(e[f].slice()));C.length;function L(t,e){if(t[e]<0)return e;var r=e,n=e;do{var i=t[n];if(!u[n]||i<0||i===n)break;if(i=t[n=i],!u[n]||i<0||i===n)break;n=i,r=t[r]}while(r!==n);for(var a=e;a!==n;a=t[a])t[a]=n;return n}var z=[];return t.forEach(function(t){var e=L(s,t[0]),r=L(l,t[1]);if(e>=0&&r>=0&&e!==r){var n=A[e],i=A[r];n!==i&&z.push([n,i])}}),i.unique(i.normalize(z)),{positions:C,edges:z}};var n=t(\\\"robust-orientation\\\"),i=t(\\\"simplicial-complex\\\")},{\\\"robust-orientation\\\":497,\\\"simplicial-complex\\\":509}],512:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){var r,a,o,s;if(e[0][0]<e[1][0])r=e[0],a=e[1];else{if(!(e[0][0]>e[1][0]))return i(e,t);r=e[1],a=e[0]}if(t[0][0]<t[1][0])o=t[0],s=t[1];else{if(!(t[0][0]>t[1][0]))return-i(t,e);o=t[1],s=t[0]}var l=n(r,a,s),c=n(r,a,o);if(l<0){if(c<=0)return l}else if(l>0){if(c>=0)return l}else if(c)return c;if(l=n(s,o,a),c=n(s,o,r),l<0){if(c<=0)return l}else if(l>0){if(c>=0)return l}else if(c)return c;return a[0]-s[0]};var n=t(\\\"robust-orientation\\\");function i(t,e){var r,i,a,o;if(e[0][0]<e[1][0])r=e[0],i=e[1];else{if(!(e[0][0]>e[1][0])){var s=Math.min(t[0][1],t[1][1]),l=Math.max(t[0][1],t[1][1]),c=Math.min(e[0][1],e[1][1]),u=Math.max(e[0][1],e[1][1]);return l<c?l-c:s>u?s-u:l-u}r=e[1],i=e[0]}t[0][1]<t[1][1]?(a=t[0],o=t[1]):(a=t[1],o=t[0]);var f=n(i,r,a);return f||((f=n(i,r,o))||o-i)}},{\\\"robust-orientation\\\":497}],513:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){for(var e=t.length,r=2*e,n=new Array(r),a=0;a<e;++a){var l=t[a],c=l[0][0]<l[1][0];n[2*a]=new f(l[0][0],l,c,a),n[2*a+1]=new f(l[1][0],l,!c,a)}n.sort(function(t,e){var r=t.x-e.x;return r||((r=t.create-e.create)||Math.min(t.segment[0][1],t.segment[1][1])-Math.min(e.segment[0][1],e.segment[1][1]))});for(var h=i(o),p=[],d=[],g=[],a=0;a<r;){for(var v=n[a].x,m=[];a<r;){var y=n[a];if(y.x!==v)break;a+=1,y.segment[0][0]===y.x&&y.segment[1][0]===y.x?y.create&&(y.segment[0][1]<y.segment[1][1]?(m.push(new u(y.segment[0][1],y.index,!0,!0)),m.push(new u(y.segment[1][1],y.index,!1,!1))):(m.push(new u(y.segment[1][1],y.index,!0,!1)),m.push(new u(y.segment[0][1],y.index,!1,!0)))):h=y.create?h.insert(y.segment,y.index):h.remove(y.segment)}p.push(h.root),d.push(v),g.push(m)}return new s(p,d,g)};var n=t(\\\"binary-search-bounds\\\"),i=t(\\\"functional-red-black-tree\\\"),a=t(\\\"robust-orientation\\\"),o=t(\\\"./lib/order-segments\\\");function s(t,e,r){this.slabs=t,this.coordinates=e,this.horizontal=r}function l(t,e){return t.y-e}function c(t,e){for(var r=null;t;){var n,i,o=t.key;o[0][0]<o[1][0]?(n=o[0],i=o[1]):(n=o[1],i=o[0]);var s=a(n,i,e);if(s<0)t=t.left;else if(s>0)if(e[0]!==o[1][0])r=t,t=t.right;else{if(l=c(t.right,e))return l;t=t.left}else{if(e[0]!==o[1][0])return t;var l;if(l=c(t.right,e))return l;t=t.left}}return r}function u(t,e,r,n){this.y=t,this.index=e,this.start=r,this.closed=n}function f(t,e,r,n){this.x=t,this.segment=e,this.create=r,this.index=n}s.prototype.castUp=function(t){var e=n.le(this.coordinates,t[0]);if(e<0)return-1;this.slabs[e];var r=c(this.slabs[e],t),i=-1;if(r&&(i=r.value),this.coordinates[e]===t[0]){var s=null;if(r&&(s=r.key),e>0){var u=c(this.slabs[e-1],t);u&&(s?o(u.key,s)>0&&(s=u.key,i=u.value):(i=u.value,s=u.key))}var f=this.horizontal[e];if(f.length>0){var h=n.ge(f,t[1],l);if(h<f.length){var p=f[h];if(t[1]===p.y){if(p.closed)return p.index;for(;h<f.length-1&&f[h+1].y===t[1];)if((p=f[h+=1]).closed)return p.index;if(p.y===t[1]&&!p.start){if((h+=1)>=f.length)return i;p=f[h]}}if(p.start)if(s){var d=a(s[0],s[1],[t[0],p.y]);s[0][0]>s[1][0]&&(d=-d),d>0&&(i=p.index)}else i=p.index;else p.y!==t[1]&&(i=p.index)}}}return i}},{\\\"./lib/order-segments\\\":512,\\\"binary-search-bounds\\\":84,\\\"functional-red-black-tree\\\":229,\\\"robust-orientation\\\":497}],514:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"robust-dot-product\\\"),i=t(\\\"robust-sum\\\");function a(t,e){var r=i(n(t,e),[e[e.length-1]]);return r[r.length-1]}function o(t,e,r,n){var i=-e/(n-e);i<0?i=0:i>1&&(i=1);for(var a=1-i,o=t.length,s=new Array(o),l=0;l<o;++l)s[l]=i*t[l]+a*r[l];return s}e.exports=function(t,e){for(var r=[],n=[],i=a(t[t.length-1],e),s=t[t.length-1],l=t[0],c=0;c<t.length;++c,s=l){var u=a(l=t[c],e);if(i<0&&u>0||i>0&&u<0){var f=o(s,u,l,i);r.push(f),n.push(f.slice())}u<0?n.push(l.slice()):u>0?r.push(l.slice()):(r.push(l.slice()),n.push(l.slice())),i=u}return{positive:r,negative:n}},e.exports.positive=function(t,e){for(var r=[],n=a(t[t.length-1],e),i=t[t.length-1],s=t[0],l=0;l<t.length;++l,i=s){var c=a(s=t[l],e);(n<0&&c>0||n>0&&c<0)&&r.push(o(i,c,s,n)),c>=0&&r.push(s.slice()),n=c}return r},e.exports.negative=function(t,e){for(var r=[],n=a(t[t.length-1],e),i=t[t.length-1],s=t[0],l=0;l<t.length;++l,i=s){var c=a(s=t[l],e);(n<0&&c>0||n>0&&c<0)&&r.push(o(i,c,s,n)),c<=0&&r.push(s.slice()),n=c}return r}},{\\\"robust-dot-product\\\":494,\\\"robust-sum\\\":502}],515:[function(t,e,r){!function(){\\\"use strict\\\";var t={not_string:/[^s]/,not_bool:/[^t]/,not_type:/[^T]/,not_primitive:/[^v]/,number:/[diefg]/,numeric_arg:/[bcdiefguxX]/,json:/[j]/,not_json:/[^j]/,text:/^[^\\\\x25]+/,modulo:/^\\\\x25{2}/,placeholder:/^\\\\x25(?:([1-9]\\\\d*)\\\\$|\\\\(([^)]+)\\\\))?(\\\\+)?(0|'[^$])?(-)?(\\\\d+)?(?:\\\\.(\\\\d+))?([b-gijostTuvxX])/,key:/^([a-z_][a-z_\\\\d]*)/i,key_access:/^\\\\.([a-z_][a-z_\\\\d]*)/i,index_access:/^\\\\[(\\\\d+)\\\\]/,sign:/^[+-]/};function e(r){return function(r,n){var i,a,o,s,l,c,u,f,h,p=1,d=r.length,g=\\\"\\\";for(a=0;a<d;a++)if(\\\"string\\\"==typeof r[a])g+=r[a];else if(\\\"object\\\"==typeof r[a]){if((s=r[a]).keys)for(i=n[p],o=0;o<s.keys.length;o++){if(null==i)throw new Error(e('[sprintf] Cannot access property \\\"%s\\\" of undefined value \\\"%s\\\"',s.keys[o],s.keys[o-1]));i=i[s.keys[o]]}else i=s.param_no?n[s.param_no]:n[p++];if(t.not_type.test(s.type)&&t.not_primitive.test(s.type)&&i instanceof Function&&(i=i()),t.numeric_arg.test(s.type)&&\\\"number\\\"!=typeof i&&isNaN(i))throw new TypeError(e(\\\"[sprintf] expecting number but found %T\\\",i));switch(t.number.test(s.type)&&(f=i>=0),s.type){case\\\"b\\\":i=parseInt(i,10).toString(2);break;case\\\"c\\\":i=String.fromCharCode(parseInt(i,10));break;case\\\"d\\\":case\\\"i\\\":i=parseInt(i,10);break;case\\\"j\\\":i=JSON.stringify(i,null,s.width?parseInt(s.width):0);break;case\\\"e\\\":i=s.precision?parseFloat(i).toExponential(s.precision):parseFloat(i).toExponential();break;case\\\"f\\\":i=s.precision?parseFloat(i).toFixed(s.precision):parseFloat(i);break;case\\\"g\\\":i=s.precision?String(Number(i.toPrecision(s.precision))):parseFloat(i);break;case\\\"o\\\":i=(parseInt(i,10)>>>0).toString(8);break;case\\\"s\\\":i=String(i),i=s.precision?i.substring(0,s.precision):i;break;case\\\"t\\\":i=String(!!i),i=s.precision?i.substring(0,s.precision):i;break;case\\\"T\\\":i=Object.prototype.toString.call(i).slice(8,-1).toLowerCase(),i=s.precision?i.substring(0,s.precision):i;break;case\\\"u\\\":i=parseInt(i,10)>>>0;break;case\\\"v\\\":i=i.valueOf(),i=s.precision?i.substring(0,s.precision):i;break;case\\\"x\\\":i=(parseInt(i,10)>>>0).toString(16);break;case\\\"X\\\":i=(parseInt(i,10)>>>0).toString(16).toUpperCase()}t.json.test(s.type)?g+=i:(!t.number.test(s.type)||f&&!s.sign?h=\\\"\\\":(h=f?\\\"+\\\":\\\"-\\\",i=i.toString().replace(t.sign,\\\"\\\")),c=s.pad_char?\\\"0\\\"===s.pad_char?\\\"0\\\":s.pad_char.charAt(1):\\\" \\\",u=s.width-(h+i).length,l=s.width&&u>0?c.repeat(u):\\\"\\\",g+=s.align?h+i+l:\\\"0\\\"===c?h+l+i:l+h+i)}return g}(function(e){if(i[e])return i[e];var r,n=e,a=[],o=0;for(;n;){if(null!==(r=t.text.exec(n)))a.push(r[0]);else if(null!==(r=t.modulo.exec(n)))a.push(\\\"%\\\");else{if(null===(r=t.placeholder.exec(n)))throw new SyntaxError(\\\"[sprintf] unexpected placeholder\\\");if(r[2]){o|=1;var s=[],l=r[2],c=[];if(null===(c=t.key.exec(l)))throw new SyntaxError(\\\"[sprintf] failed to parse named argument key\\\");for(s.push(c[1]);\\\"\\\"!==(l=l.substring(c[0].length));)if(null!==(c=t.key_access.exec(l)))s.push(c[1]);else{if(null===(c=t.index_access.exec(l)))throw new SyntaxError(\\\"[sprintf] failed to parse named argument key\\\");s.push(c[1])}r[2]=s}else o|=2;if(3===o)throw new Error(\\\"[sprintf] mixing positional and named placeholders is not (yet) supported\\\");a.push({placeholder:r[0],param_no:r[1],keys:r[2],sign:r[3],pad_char:r[4],align:r[5],width:r[6],precision:r[7],type:r[8]})}n=n.substring(r[0].length)}return i[e]=a}(r),arguments)}function n(t,r){return e.apply(null,[t].concat(r||[]))}var i=Object.create(null);\\\"undefined\\\"!=typeof r&&(r.sprintf=e,r.vsprintf=n),\\\"undefined\\\"!=typeof window&&(window.sprintf=e,window.vsprintf=n)}()},{}],516:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"parenthesis\\\");e.exports=function(t,e,r){if(null==t)throw Error(\\\"First argument should be a string\\\");if(null==e)throw Error(\\\"Separator should be a string or a RegExp\\\");r?(\\\"string\\\"==typeof r||Array.isArray(r))&&(r={ignore:r}):r={},null==r.escape&&(r.escape=!0),null==r.ignore?r.ignore=[\\\"[]\\\",\\\"()\\\",\\\"{}\\\",\\\"<>\\\",'\\\"\\\"',\\\"''\\\",\\\"``\\\",\\\"\\\\u201c\\\\u201d\\\",\\\"\\\\xab\\\\xbb\\\"]:(\\\"string\\\"==typeof r.ignore&&(r.ignore=[r.ignore]),r.ignore=r.ignore.map(function(t){return 1===t.length&&(t+=t),t}));var i=n.parse(t,{flat:!0,brackets:r.ignore}),a=i[0].split(e);if(r.escape){for(var o=[],s=0;s<a.length;s++){var l=a[s],c=a[s+1];\\\"\\\\\\\\\\\"===l[l.length-1]&&\\\"\\\\\\\\\\\"!==l[l.length-2]?(o.push(l+e+c),s++):o.push(l)}a=o}for(s=0;s<a.length;s++)i[0]=a[s],a[s]=n.stringify(i,{flat:!0});return a}},{parenthesis:453}],517:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){for(var e=t.length,r=new Array(e),n=new Array(e),i=new Array(e),a=new Array(e),o=new Array(e),s=new Array(e),l=0;l<e;++l)r[l]=-1,n[l]=0,i[l]=!1,a[l]=0,o[l]=-1,s[l]=[];var c,u=0,f=[],h=[];function p(e){var l=[e],c=[e];for(r[e]=n[e]=u,i[e]=!0,u+=1;c.length>0;){e=c[c.length-1];var p=t[e];if(a[e]<p.length){for(var d=a[e];d<p.length;++d){var g=p[d];if(r[g]<0){r[g]=n[g]=u,i[g]=!0,u+=1,l.push(g),c.push(g);break}i[g]&&(n[e]=0|Math.min(n[e],n[g])),o[g]>=0&&s[e].push(o[g])}a[e]=d}else{if(n[e]===r[e]){for(var v=[],m=[],y=0,d=l.length-1;d>=0;--d){var x=l[d];if(i[x]=!1,v.push(x),m.push(s[x]),y+=s[x].length,o[x]=f.length,x===e){l.length=d;break}}f.push(v);for(var b=new Array(y),d=0;d<m.length;d++)for(var _=0;_<m[d].length;_++)b[--y]=m[d][_];h.push(b)}c.pop()}}}for(var l=0;l<e;++l)r[l]<0&&p(l);for(var l=0;l<h.length;l++){var d=h[l];if(0!==d.length){d.sort(function(t,e){return t-e}),c=[d[0]];for(var g=1;g<d.length;g++)d[g]!==d[g-1]&&c.push(d[g]);h[l]=c}}return{components:f,adjacencyList:h}}},{}],518:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){if(t.dimension<=0)return{positions:[],cells:[]};if(1===t.dimension)return function(t,e){for(var r=a(t,e),n=r.length,i=new Array(n),o=new Array(n),s=0;s<n;++s)i[s]=[r[s]],o[s]=[s];return{positions:i,cells:o}}(t,e);var r=t.order.join()+\\\"-\\\"+t.dtype,s=o[r],e=+e||0;s||(s=o[r]=function(t,e){var r=t.length,a=[\\\"'use strict';\\\"],o=\\\"surfaceNets\\\"+t.join(\\\"_\\\")+\\\"d\\\"+e;a.push(\\\"var contour=genContour({\\\",\\\"order:[\\\",t.join(),\\\"],\\\",\\\"scalarArguments: 3,\\\",\\\"phase:function phaseFunc(p,a,b,c) { return (p > c)|0 },\\\"),\\\"generic\\\"===e&&a.push(\\\"getters:[0],\\\");for(var s=[],l=[],c=0;c<r;++c)s.push(\\\"d\\\"+c),l.push(\\\"d\\\"+c);for(var c=0;c<1<<r;++c)s.push(\\\"v\\\"+c),l.push(\\\"v\\\"+c);for(var c=0;c<1<<r;++c)s.push(\\\"p\\\"+c),l.push(\\\"p\\\"+c);s.push(\\\"a\\\",\\\"b\\\",\\\"c\\\"),l.push(\\\"a\\\",\\\"c\\\"),a.push(\\\"vertex:function vertexFunc(\\\",s.join(),\\\"){\\\");for(var u=[],c=0;c<1<<r;++c)u.push(\\\"(p\\\"+c+\\\"<<\\\"+c+\\\")\\\");a.push(\\\"var m=(\\\",u.join(\\\"+\\\"),\\\")|0;if(m===0||m===\\\",(1<<(1<<r))-1,\\\"){return}\\\");var f=[],h=[];1<<(1<<r)<=128?(a.push(\\\"switch(m){\\\"),h=a):a.push(\\\"switch(m>>>7){\\\");for(var c=0;c<1<<(1<<r);++c){if(1<<(1<<r)>128&&c%128==0){f.length>0&&h.push(\\\"}}\\\");var p=\\\"vExtra\\\"+f.length;a.push(\\\"case \\\",c>>>7,\\\":\\\",p,\\\"(m&0x7f,\\\",l.join(),\\\");break;\\\"),h=[\\\"function \\\",p,\\\"(m,\\\",l.join(),\\\"){switch(m){\\\"],f.push(h)}h.push(\\\"case \\\",127&c,\\\":\\\");for(var d=new Array(r),g=new Array(r),v=new Array(r),m=new Array(r),y=0,x=0;x<r;++x)d[x]=[],g[x]=[],v[x]=0,m[x]=0;for(var x=0;x<1<<r;++x)for(var b=0;b<r;++b){var _=x^1<<b;if(!(_>x)&&!(c&1<<_)!=!(c&1<<x)){var w=1;c&1<<_?g[b].push(\\\"v\\\"+_+\\\"-v\\\"+x):(g[b].push(\\\"v\\\"+x+\\\"-v\\\"+_),w=-w),w<0?(d[b].push(\\\"-v\\\"+x+\\\"-v\\\"+_),v[b]+=2):(d[b].push(\\\"v\\\"+x+\\\"+v\\\"+_),v[b]-=2),y+=1;for(var k=0;k<r;++k)k!==b&&(_&1<<k?m[k]+=1:m[k]-=1)}}for(var T=[],b=0;b<r;++b)if(0===d[b].length)T.push(\\\"d\\\"+b+\\\"-0.5\\\");else{var A=\\\"\\\";v[b]<0?A=v[b]+\\\"*c\\\":v[b]>0&&(A=\\\"+\\\"+v[b]+\\\"*c\\\");var M=d[b].length/y*.5,S=.5+m[b]/y*.5;T.push(\\\"d\\\"+b+\\\"-\\\"+S+\\\"-\\\"+M+\\\"*(\\\"+d[b].join(\\\"+\\\")+A+\\\")/(\\\"+g[b].join(\\\"+\\\")+\\\")\\\")}h.push(\\\"a.push([\\\",T.join(),\\\"]);\\\",\\\"break;\\\")}a.push(\\\"}},\\\"),f.length>0&&h.push(\\\"}}\\\");for(var E=[],c=0;c<1<<r-1;++c)E.push(\\\"v\\\"+c);E.push(\\\"c0\\\",\\\"c1\\\",\\\"p0\\\",\\\"p1\\\",\\\"a\\\",\\\"b\\\",\\\"c\\\"),a.push(\\\"cell:function cellFunc(\\\",E.join(),\\\"){\\\");var C=i(r-1);a.push(\\\"if(p0){b.push(\\\",C.map(function(t){return\\\"[\\\"+t.map(function(t){return\\\"v\\\"+t})+\\\"]\\\"}).join(),\\\")}else{b.push(\\\",C.map(function(t){var e=t.slice();return e.reverse(),\\\"[\\\"+e.map(function(t){return\\\"v\\\"+t})+\\\"]\\\"}).join(),\\\")}}});function \\\",o,\\\"(array,level){var verts=[],cells=[];contour(array,verts,cells,level);return {positions:verts,cells:cells};} return \\\",o,\\\";\\\");for(var c=0;c<f.length;++c)a.push(f[c].join(\\\"\\\"));return new Function(\\\"genContour\\\",a.join(\\\"\\\"))(n)}(t.order,t.dtype));return s(t,e)};var n=t(\\\"ndarray-extract-contour\\\"),i=t(\\\"triangulate-hypercube\\\"),a=t(\\\"zero-crossings\\\");var o={}},{\\\"ndarray-extract-contour\\\":434,\\\"triangulate-hypercube\\\":528,\\\"zero-crossings\\\":561}],519:[function(t,e,r){\\\"use strict\\\";Object.defineProperty(r,\\\"__esModule\\\",{value:!0});var n=function(){return function(t,e){if(Array.isArray(t))return t;if(Symbol.iterator in Object(t))return function(t,e){var r=[],n=!0,i=!1,a=void 0;try{for(var o,s=t[Symbol.iterator]();!(n=(o=s.next()).done)&&(r.push(o.value),!e||r.length!==e);n=!0);}catch(t){i=!0,a=t}finally{try{!n&&s.return&&s.return()}finally{if(i)throw a}}return r}(t,e);throw new TypeError(\\\"Invalid attempt to destructure non-iterable instance\\\")}}(),i=2*Math.PI,a=function(t,e,r,n,i,a,o){var s=t.x,l=t.y;return{x:n*(s*=e)-i*(l*=r)+a,y:i*s+n*l+o}},o=function(t,e){var r=.551915024494*(e<0?-1:1),n=Math.cos(t),i=Math.sin(t),a=Math.cos(t+e),o=Math.sin(t+e);return[{x:n-i*r,y:i+n*r},{x:a+o*r,y:o-a*r},{x:a,y:o}]},s=function(t,e,r,n){var i=t*n-e*r<0?-1:1,a=(t*r+e*n)/(Math.sqrt(t*t+e*e)*Math.sqrt(t*t+e*e));return a>1&&(a=1),a<-1&&(a=-1),i*Math.acos(a)};r.default=function(t){var e=t.px,r=t.py,l=t.cx,c=t.cy,u=t.rx,f=t.ry,h=t.xAxisRotation,p=void 0===h?0:h,d=t.largeArcFlag,g=void 0===d?0:d,v=t.sweepFlag,m=void 0===v?0:v,y=[];if(0===u||0===f)return[];var x=Math.sin(p*i/360),b=Math.cos(p*i/360),_=b*(e-l)/2+x*(r-c)/2,w=-x*(e-l)/2+b*(r-c)/2;if(0===_&&0===w)return[];u=Math.abs(u),f=Math.abs(f);var k=Math.pow(_,2)/Math.pow(u,2)+Math.pow(w,2)/Math.pow(f,2);k>1&&(u*=Math.sqrt(k),f*=Math.sqrt(k));var T=function(t,e,r,n,a,o,l,c,u,f,h,p){var d=Math.pow(a,2),g=Math.pow(o,2),v=Math.pow(h,2),m=Math.pow(p,2),y=d*g-d*m-g*v;y<0&&(y=0),y/=d*m+g*v;var x=(y=Math.sqrt(y)*(l===c?-1:1))*a/o*p,b=y*-o/a*h,_=f*x-u*b+(t+r)/2,w=u*x+f*b+(e+n)/2,k=(h-x)/a,T=(p-b)/o,A=(-h-x)/a,M=(-p-b)/o,S=s(1,0,k,T),E=s(k,T,A,M);return 0===c&&E>0&&(E-=i),1===c&&E<0&&(E+=i),[_,w,S,E]}(e,r,l,c,u,f,g,m,x,b,_,w),A=n(T,4),M=A[0],S=A[1],E=A[2],C=A[3],L=Math.abs(C)/(i/4);Math.abs(1-L)<1e-7&&(L=1);var z=Math.max(Math.ceil(L),1);C/=z;for(var O=0;O<z;O++)y.push(o(E,C)),E+=C;return y.map(function(t){var e=a(t[0],u,f,b,x,M,S),r=e.x,n=e.y,i=a(t[1],u,f,b,x,M,S),o=i.x,s=i.y,l=a(t[2],u,f,b,x,M,S);return{x1:r,y1:n,x2:o,y2:s,x:l.x,y:l.y}})},e.exports=r.default},{}],520:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"parse-svg-path\\\"),i=t(\\\"abs-svg-path\\\"),a=t(\\\"normalize-svg-path\\\"),o=t(\\\"is-svg-path\\\"),s=t(\\\"assert\\\");e.exports=function(t){Array.isArray(t)&&1===t.length&&\\\"string\\\"==typeof t[0]&&(t=t[0]);\\\"string\\\"==typeof t&&(s(o(t),\\\"String is not an SVG path.\\\"),t=n(t));if(s(Array.isArray(t),\\\"Argument should be a string or an array of path segments.\\\"),t=i(t),!(t=a(t)).length)return[0,0,0,0];for(var e=[1/0,1/0,-1/0,-1/0],r=0,l=t.length;r<l;r++)for(var c=t[r].slice(1),u=0;u<c.length;u+=2)c[u+0]<e[0]&&(e[0]=c[u+0]),c[u+1]<e[1]&&(e[1]=c[u+1]),c[u+0]>e[2]&&(e[2]=c[u+0]),c[u+1]>e[3]&&(e[3]=c[u+1]);return e}},{\\\"abs-svg-path\\\":53,assert:61,\\\"is-svg-path\\\":419,\\\"normalize-svg-path\\\":521,\\\"parse-svg-path\\\":455}],521:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){for(var e,r=[],o=0,s=0,l=0,c=0,u=null,f=null,h=0,p=0,d=0,g=t.length;d<g;d++){var v=t[d],m=v[0];switch(m){case\\\"M\\\":l=v[1],c=v[2];break;case\\\"A\\\":var y=n({px:h,py:p,cx:v[6],cy:v[7],rx:v[1],ry:v[2],xAxisRotation:v[3],largeArcFlag:v[4],sweepFlag:v[5]});if(!y.length)continue;for(var x,b=0;b<y.length;b++)x=y[b],v=[\\\"C\\\",x.x1,x.y1,x.x2,x.y2,x.x,x.y],b<y.length-1&&r.push(v);break;case\\\"S\\\":var _=h,w=p;\\\"C\\\"!=e&&\\\"S\\\"!=e||(_+=_-o,w+=w-s),v=[\\\"C\\\",_,w,v[1],v[2],v[3],v[4]];break;case\\\"T\\\":\\\"Q\\\"==e||\\\"T\\\"==e?(u=2*h-u,f=2*p-f):(u=h,f=p),v=a(h,p,u,f,v[1],v[2]);break;case\\\"Q\\\":u=v[1],f=v[2],v=a(h,p,v[1],v[2],v[3],v[4]);break;case\\\"L\\\":v=i(h,p,v[1],v[2]);break;case\\\"H\\\":v=i(h,p,v[1],p);break;case\\\"V\\\":v=i(h,p,h,v[1]);break;case\\\"Z\\\":v=i(h,p,l,c)}e=m,h=v[v.length-2],p=v[v.length-1],v.length>4?(o=v[v.length-4],s=v[v.length-3]):(o=h,s=p),r.push(v)}return r};var n=t(\\\"svg-arc-to-cubic-bezier\\\");function i(t,e,r,n){return[\\\"C\\\",t,e,r,n,r,n]}function a(t,e,r,n,i,a){return[\\\"C\\\",t/3+2/3*r,e/3+2/3*n,i/3+2/3*r,a/3+2/3*n,i,a]}},{\\\"svg-arc-to-cubic-bezier\\\":519}],522:[function(t,e,r){\\\"use strict\\\";var n,i=t(\\\"svg-path-bounds\\\"),a=t(\\\"parse-svg-path\\\"),o=t(\\\"draw-svg-path\\\"),s=t(\\\"is-svg-path\\\"),l=t(\\\"bitmap-sdf\\\"),c=document.createElement(\\\"canvas\\\"),u=c.getContext(\\\"2d\\\");e.exports=function(t,e){if(!s(t))throw Error(\\\"Argument should be valid svg path string\\\");e||(e={});var r,f;e.shape?(r=e.shape[0],f=e.shape[1]):(r=c.width=e.w||e.width||200,f=c.height=e.h||e.height||200);var h=Math.min(r,f),p=e.stroke||0,d=e.viewbox||e.viewBox||i(t),g=[r/(d[2]-d[0]),f/(d[3]-d[1])],v=Math.min(g[0]||0,g[1]||0)/2;u.fillStyle=\\\"black\\\",u.fillRect(0,0,r,f),u.fillStyle=\\\"white\\\",p&&(\\\"number\\\"!=typeof p&&(p=1),u.strokeStyle=p>0?\\\"white\\\":\\\"black\\\",u.lineWidth=Math.abs(p));if(u.translate(.5*r,.5*f),u.scale(v,v),function(){if(null!=n)return n;var t=document.createElement(\\\"canvas\\\").getContext(\\\"2d\\\");if(t.canvas.width=t.canvas.height=1,!window.Path2D)return n=!1;var e=new Path2D(\\\"M0,0h1v1h-1v-1Z\\\");t.fillStyle=\\\"black\\\",t.fill(e);var r=t.getImageData(0,0,1,1);return n=r&&r.data&&255===r.data[3]}()){var m=new Path2D(t);u.fill(m),p&&u.stroke(m)}else{var y=a(t);o(u,y),u.fill(),p&&u.stroke()}return u.setTransform(1,0,0,1,0,0),l(u,{cutoff:null!=e.cutoff?e.cutoff:.5,radius:null!=e.radius?e.radius:.5*h})}},{\\\"bitmap-sdf\\\":86,\\\"draw-svg-path\\\":162,\\\"is-svg-path\\\":419,\\\"parse-svg-path\\\":455,\\\"svg-path-bounds\\\":520}],523:[function(t,e,r){(function(r){\\\"use strict\\\";e.exports=function t(e,r,i){var i=i||{};var o=a[e];o||(o=a[e]={\\\" \\\":{data:new Float32Array(0),shape:.2}});var s=o[r];if(!s)if(r.length<=1||!/\\\\d/.test(r))s=o[r]=function(t){for(var e=t.cells,r=t.positions,n=new Float32Array(6*e.length),i=0,a=0,o=0;o<e.length;++o)for(var s=e[o],l=0;l<3;++l){var c=r[s[l]];n[i++]=c[0],n[i++]=c[1]+1.4,a=Math.max(c[0],a)}return{data:n,shape:a}}(n(r,{triangles:!0,font:e,textAlign:i.textAlign||\\\"left\\\",textBaseline:\\\"alphabetic\\\",styletags:{breaklines:!0,bolds:!0,italics:!0,subscripts:!0,superscripts:!0}}));else{for(var l=r.split(/(\\\\d|\\\\s)/),c=new Array(l.length),u=0,f=0,h=0;h<l.length;++h)c[h]=t(e,l[h]),u+=c[h].data.length,f+=c[h].shape,h>0&&(f+=.02);for(var p=new Float32Array(u),d=0,g=-.5*f,h=0;h<c.length;++h){for(var v=c[h].data,m=0;m<v.length;m+=2)p[d++]=v[m]+g,p[d++]=v[m+1];g+=c[h].shape+.02}s=o[r]={data:p,shape:f}}return s};var n=t(\\\"vectorize-text\\\"),i=window||r.global||{},a=i.__TEXT_CACHE||{};i.__TEXT_CACHE={}}).call(this,t(\\\"_process\\\"))},{_process:477,\\\"vectorize-text\\\":537}],524:[function(t,e,r){!function(t){var r=/^\\\\s+/,n=/\\\\s+$/,i=0,a=t.round,o=t.min,s=t.max,l=t.random;function c(e,l){if(l=l||{},(e=e||\\\"\\\")instanceof c)return e;if(!(this instanceof c))return new c(e,l);var u=function(e){var i={r:0,g:0,b:0},a=1,l=null,c=null,u=null,f=!1,h=!1;\\\"string\\\"==typeof e&&(e=function(t){t=t.replace(r,\\\"\\\").replace(n,\\\"\\\").toLowerCase();var e,i=!1;if(S[t])t=S[t],i=!0;else if(\\\"transparent\\\"==t)return{r:0,g:0,b:0,a:0,format:\\\"name\\\"};if(e=j.rgb.exec(t))return{r:e[1],g:e[2],b:e[3]};if(e=j.rgba.exec(t))return{r:e[1],g:e[2],b:e[3],a:e[4]};if(e=j.hsl.exec(t))return{h:e[1],s:e[2],l:e[3]};if(e=j.hsla.exec(t))return{h:e[1],s:e[2],l:e[3],a:e[4]};if(e=j.hsv.exec(t))return{h:e[1],s:e[2],v:e[3]};if(e=j.hsva.exec(t))return{h:e[1],s:e[2],v:e[3],a:e[4]};if(e=j.hex8.exec(t))return{r:O(e[1]),g:O(e[2]),b:O(e[3]),a:R(e[4]),format:i?\\\"name\\\":\\\"hex8\\\"};if(e=j.hex6.exec(t))return{r:O(e[1]),g:O(e[2]),b:O(e[3]),format:i?\\\"name\\\":\\\"hex\\\"};if(e=j.hex4.exec(t))return{r:O(e[1]+\\\"\\\"+e[1]),g:O(e[2]+\\\"\\\"+e[2]),b:O(e[3]+\\\"\\\"+e[3]),a:R(e[4]+\\\"\\\"+e[4]),format:i?\\\"name\\\":\\\"hex8\\\"};if(e=j.hex3.exec(t))return{r:O(e[1]+\\\"\\\"+e[1]),g:O(e[2]+\\\"\\\"+e[2]),b:O(e[3]+\\\"\\\"+e[3]),format:i?\\\"name\\\":\\\"hex\\\"};return!1}(e));\\\"object\\\"==typeof e&&(V(e.r)&&V(e.g)&&V(e.b)?(p=e.r,d=e.g,g=e.b,i={r:255*L(p,255),g:255*L(d,255),b:255*L(g,255)},f=!0,h=\\\"%\\\"===String(e.r).substr(-1)?\\\"prgb\\\":\\\"rgb\\\"):V(e.h)&&V(e.s)&&V(e.v)?(l=D(e.s),c=D(e.v),i=function(e,r,n){e=6*L(e,360),r=L(r,100),n=L(n,100);var i=t.floor(e),a=e-i,o=n*(1-r),s=n*(1-a*r),l=n*(1-(1-a)*r),c=i%6;return{r:255*[n,s,o,o,l,n][c],g:255*[l,n,n,s,o,o][c],b:255*[o,o,l,n,n,s][c]}}(e.h,l,c),f=!0,h=\\\"hsv\\\"):V(e.h)&&V(e.s)&&V(e.l)&&(l=D(e.s),u=D(e.l),i=function(t,e,r){var n,i,a;function o(t,e,r){return r<0&&(r+=1),r>1&&(r-=1),r<1/6?t+6*(e-t)*r:r<.5?e:r<2/3?t+(e-t)*(2/3-r)*6:t}if(t=L(t,360),e=L(e,100),r=L(r,100),0===e)n=i=a=r;else{var s=r<.5?r*(1+e):r+e-r*e,l=2*r-s;n=o(l,s,t+1/3),i=o(l,s,t),a=o(l,s,t-1/3)}return{r:255*n,g:255*i,b:255*a}}(e.h,l,u),f=!0,h=\\\"hsl\\\"),e.hasOwnProperty(\\\"a\\\")&&(a=e.a));var p,d,g;return a=C(a),{ok:f,format:e.format||h,r:o(255,s(i.r,0)),g:o(255,s(i.g,0)),b:o(255,s(i.b,0)),a:a}}(e);this._originalInput=e,this._r=u.r,this._g=u.g,this._b=u.b,this._a=u.a,this._roundA=a(100*this._a)/100,this._format=l.format||u.format,this._gradientType=l.gradientType,this._r<1&&(this._r=a(this._r)),this._g<1&&(this._g=a(this._g)),this._b<1&&(this._b=a(this._b)),this._ok=u.ok,this._tc_id=i++}function u(t,e,r){t=L(t,255),e=L(e,255),r=L(r,255);var n,i,a=s(t,e,r),l=o(t,e,r),c=(a+l)/2;if(a==l)n=i=0;else{var u=a-l;switch(i=c>.5?u/(2-a-l):u/(a+l),a){case t:n=(e-r)/u+(e<r?6:0);break;case e:n=(r-t)/u+2;break;case r:n=(t-e)/u+4}n/=6}return{h:n,s:i,l:c}}function f(t,e,r){t=L(t,255),e=L(e,255),r=L(r,255);var n,i,a=s(t,e,r),l=o(t,e,r),c=a,u=a-l;if(i=0===a?0:u/a,a==l)n=0;else{switch(a){case t:n=(e-r)/u+(e<r?6:0);break;case e:n=(r-t)/u+2;break;case r:n=(t-e)/u+4}n/=6}return{h:n,s:i,v:c}}function h(t,e,r,n){var i=[I(a(t).toString(16)),I(a(e).toString(16)),I(a(r).toString(16))];return n&&i[0].charAt(0)==i[0].charAt(1)&&i[1].charAt(0)==i[1].charAt(1)&&i[2].charAt(0)==i[2].charAt(1)?i[0].charAt(0)+i[1].charAt(0)+i[2].charAt(0):i.join(\\\"\\\")}function p(t,e,r,n){return[I(P(n)),I(a(t).toString(16)),I(a(e).toString(16)),I(a(r).toString(16))].join(\\\"\\\")}function d(t,e){e=0===e?0:e||10;var r=c(t).toHsl();return r.s-=e/100,r.s=z(r.s),c(r)}function g(t,e){e=0===e?0:e||10;var r=c(t).toHsl();return r.s+=e/100,r.s=z(r.s),c(r)}function v(t){return c(t).desaturate(100)}function m(t,e){e=0===e?0:e||10;var r=c(t).toHsl();return r.l+=e/100,r.l=z(r.l),c(r)}function y(t,e){e=0===e?0:e||10;var r=c(t).toRgb();return r.r=s(0,o(255,r.r-a(-e/100*255))),r.g=s(0,o(255,r.g-a(-e/100*255))),r.b=s(0,o(255,r.b-a(-e/100*255))),c(r)}function x(t,e){e=0===e?0:e||10;var r=c(t).toHsl();return r.l-=e/100,r.l=z(r.l),c(r)}function b(t,e){var r=c(t).toHsl(),n=(r.h+e)%360;return r.h=n<0?360+n:n,c(r)}function _(t){var e=c(t).toHsl();return e.h=(e.h+180)%360,c(e)}function w(t){var e=c(t).toHsl(),r=e.h;return[c(t),c({h:(r+120)%360,s:e.s,l:e.l}),c({h:(r+240)%360,s:e.s,l:e.l})]}function k(t){var e=c(t).toHsl(),r=e.h;return[c(t),c({h:(r+90)%360,s:e.s,l:e.l}),c({h:(r+180)%360,s:e.s,l:e.l}),c({h:(r+270)%360,s:e.s,l:e.l})]}function T(t){var e=c(t).toHsl(),r=e.h;return[c(t),c({h:(r+72)%360,s:e.s,l:e.l}),c({h:(r+216)%360,s:e.s,l:e.l})]}function A(t,e,r){e=e||6,r=r||30;var n=c(t).toHsl(),i=360/r,a=[c(t)];for(n.h=(n.h-(i*e>>1)+720)%360;--e;)n.h=(n.h+i)%360,a.push(c(n));return a}function M(t,e){e=e||6;for(var r=c(t).toHsv(),n=r.h,i=r.s,a=r.v,o=[],s=1/e;e--;)o.push(c({h:n,s:i,v:a})),a=(a+s)%1;return o}c.prototype={isDark:function(){return this.getBrightness()<128},isLight:function(){return!this.isDark()},isValid:function(){return this._ok},getOriginalInput:function(){return this._originalInput},getFormat:function(){return this._format},getAlpha:function(){return this._a},getBrightness:function(){var t=this.toRgb();return(299*t.r+587*t.g+114*t.b)/1e3},getLuminance:function(){var e,r,n,i=this.toRgb();return e=i.r/255,r=i.g/255,n=i.b/255,.2126*(e<=.03928?e/12.92:t.pow((e+.055)/1.055,2.4))+.7152*(r<=.03928?r/12.92:t.pow((r+.055)/1.055,2.4))+.0722*(n<=.03928?n/12.92:t.pow((n+.055)/1.055,2.4))},setAlpha:function(t){return this._a=C(t),this._roundA=a(100*this._a)/100,this},toHsv:function(){var t=f(this._r,this._g,this._b);return{h:360*t.h,s:t.s,v:t.v,a:this._a}},toHsvString:function(){var t=f(this._r,this._g,this._b),e=a(360*t.h),r=a(100*t.s),n=a(100*t.v);return 1==this._a?\\\"hsv(\\\"+e+\\\", \\\"+r+\\\"%, \\\"+n+\\\"%)\\\":\\\"hsva(\\\"+e+\\\", \\\"+r+\\\"%, \\\"+n+\\\"%, \\\"+this._roundA+\\\")\\\"},toHsl:function(){var t=u(this._r,this._g,this._b);return{h:360*t.h,s:t.s,l:t.l,a:this._a}},toHslString:function(){var t=u(this._r,this._g,this._b),e=a(360*t.h),r=a(100*t.s),n=a(100*t.l);return 1==this._a?\\\"hsl(\\\"+e+\\\", \\\"+r+\\\"%, \\\"+n+\\\"%)\\\":\\\"hsla(\\\"+e+\\\", \\\"+r+\\\"%, \\\"+n+\\\"%, \\\"+this._roundA+\\\")\\\"},toHex:function(t){return h(this._r,this._g,this._b,t)},toHexString:function(t){return\\\"#\\\"+this.toHex(t)},toHex8:function(t){return function(t,e,r,n,i){var o=[I(a(t).toString(16)),I(a(e).toString(16)),I(a(r).toString(16)),I(P(n))];if(i&&o[0].charAt(0)==o[0].charAt(1)&&o[1].charAt(0)==o[1].charAt(1)&&o[2].charAt(0)==o[2].charAt(1)&&o[3].charAt(0)==o[3].charAt(1))return o[0].charAt(0)+o[1].charAt(0)+o[2].charAt(0)+o[3].charAt(0);return o.join(\\\"\\\")}(this._r,this._g,this._b,this._a,t)},toHex8String:function(t){return\\\"#\\\"+this.toHex8(t)},toRgb:function(){return{r:a(this._r),g:a(this._g),b:a(this._b),a:this._a}},toRgbString:function(){return 1==this._a?\\\"rgb(\\\"+a(this._r)+\\\", \\\"+a(this._g)+\\\", \\\"+a(this._b)+\\\")\\\":\\\"rgba(\\\"+a(this._r)+\\\", \\\"+a(this._g)+\\\", \\\"+a(this._b)+\\\", \\\"+this._roundA+\\\")\\\"},toPercentageRgb:function(){return{r:a(100*L(this._r,255))+\\\"%\\\",g:a(100*L(this._g,255))+\\\"%\\\",b:a(100*L(this._b,255))+\\\"%\\\",a:this._a}},toPercentageRgbString:function(){return 1==this._a?\\\"rgb(\\\"+a(100*L(this._r,255))+\\\"%, \\\"+a(100*L(this._g,255))+\\\"%, \\\"+a(100*L(this._b,255))+\\\"%)\\\":\\\"rgba(\\\"+a(100*L(this._r,255))+\\\"%, \\\"+a(100*L(this._g,255))+\\\"%, \\\"+a(100*L(this._b,255))+\\\"%, \\\"+this._roundA+\\\")\\\"},toName:function(){return 0===this._a?\\\"transparent\\\":!(this._a<1)&&(E[h(this._r,this._g,this._b,!0)]||!1)},toFilter:function(t){var e=\\\"#\\\"+p(this._r,this._g,this._b,this._a),r=e,n=this._gradientType?\\\"GradientType = 1, \\\":\\\"\\\";if(t){var i=c(t);r=\\\"#\\\"+p(i._r,i._g,i._b,i._a)}return\\\"progid:DXImageTransform.Microsoft.gradient(\\\"+n+\\\"startColorstr=\\\"+e+\\\",endColorstr=\\\"+r+\\\")\\\"},toString:function(t){var e=!!t;t=t||this._format;var r=!1,n=this._a<1&&this._a>=0;return e||!n||\\\"hex\\\"!==t&&\\\"hex6\\\"!==t&&\\\"hex3\\\"!==t&&\\\"hex4\\\"!==t&&\\\"hex8\\\"!==t&&\\\"name\\\"!==t?(\\\"rgb\\\"===t&&(r=this.toRgbString()),\\\"prgb\\\"===t&&(r=this.toPercentageRgbString()),\\\"hex\\\"!==t&&\\\"hex6\\\"!==t||(r=this.toHexString()),\\\"hex3\\\"===t&&(r=this.toHexString(!0)),\\\"hex4\\\"===t&&(r=this.toHex8String(!0)),\\\"hex8\\\"===t&&(r=this.toHex8String()),\\\"name\\\"===t&&(r=this.toName()),\\\"hsl\\\"===t&&(r=this.toHslString()),\\\"hsv\\\"===t&&(r=this.toHsvString()),r||this.toHexString()):\\\"name\\\"===t&&0===this._a?this.toName():this.toRgbString()},clone:function(){return c(this.toString())},_applyModification:function(t,e){var r=t.apply(null,[this].concat([].slice.call(e)));return this._r=r._r,this._g=r._g,this._b=r._b,this.setAlpha(r._a),this},lighten:function(){return this._applyModification(m,arguments)},brighten:function(){return this._applyModification(y,arguments)},darken:function(){return this._applyModification(x,arguments)},desaturate:function(){return this._applyModification(d,arguments)},saturate:function(){return this._applyModification(g,arguments)},greyscale:function(){return this._applyModification(v,arguments)},spin:function(){return this._applyModification(b,arguments)},_applyCombination:function(t,e){return t.apply(null,[this].concat([].slice.call(e)))},analogous:function(){return this._applyCombination(A,arguments)},complement:function(){return this._applyCombination(_,arguments)},monochromatic:function(){return this._applyCombination(M,arguments)},splitcomplement:function(){return this._applyCombination(T,arguments)},triad:function(){return this._applyCombination(w,arguments)},tetrad:function(){return this._applyCombination(k,arguments)}},c.fromRatio=function(t,e){if(\\\"object\\\"==typeof t){var r={};for(var n in t)t.hasOwnProperty(n)&&(r[n]=\\\"a\\\"===n?t[n]:D(t[n]));t=r}return c(t,e)},c.equals=function(t,e){return!(!t||!e)&&c(t).toRgbString()==c(e).toRgbString()},c.random=function(){return c.fromRatio({r:l(),g:l(),b:l()})},c.mix=function(t,e,r){r=0===r?0:r||50;var n=c(t).toRgb(),i=c(e).toRgb(),a=r/100;return c({r:(i.r-n.r)*a+n.r,g:(i.g-n.g)*a+n.g,b:(i.b-n.b)*a+n.b,a:(i.a-n.a)*a+n.a})},c.readability=function(e,r){var n=c(e),i=c(r);return(t.max(n.getLuminance(),i.getLuminance())+.05)/(t.min(n.getLuminance(),i.getLuminance())+.05)},c.isReadable=function(t,e,r){var n,i,a=c.readability(t,e);switch(i=!1,(n=function(t){var e,r;e=((t=t||{level:\\\"AA\\\",size:\\\"small\\\"}).level||\\\"AA\\\").toUpperCase(),r=(t.size||\\\"small\\\").toLowerCase(),\\\"AA\\\"!==e&&\\\"AAA\\\"!==e&&(e=\\\"AA\\\");\\\"small\\\"!==r&&\\\"large\\\"!==r&&(r=\\\"small\\\");return{level:e,size:r}}(r)).level+n.size){case\\\"AAsmall\\\":case\\\"AAAlarge\\\":i=a>=4.5;break;case\\\"AAlarge\\\":i=a>=3;break;case\\\"AAAsmall\\\":i=a>=7}return i},c.mostReadable=function(t,e,r){var n,i,a,o,s=null,l=0;i=(r=r||{}).includeFallbackColors,a=r.level,o=r.size;for(var u=0;u<e.length;u++)(n=c.readability(t,e[u]))>l&&(l=n,s=c(e[u]));return c.isReadable(t,s,{level:a,size:o})||!i?s:(r.includeFallbackColors=!1,c.mostReadable(t,[\\\"#fff\\\",\\\"#000\\\"],r))};var S=c.names={aliceblue:\\\"f0f8ff\\\",antiquewhite:\\\"faebd7\\\",aqua:\\\"0ff\\\",aquamarine:\\\"7fffd4\\\",azure:\\\"f0ffff\\\",beige:\\\"f5f5dc\\\",bisque:\\\"ffe4c4\\\",black:\\\"000\\\",blanchedalmond:\\\"ffebcd\\\",blue:\\\"00f\\\",blueviolet:\\\"8a2be2\\\",brown:\\\"a52a2a\\\",burlywood:\\\"deb887\\\",burntsienna:\\\"ea7e5d\\\",cadetblue:\\\"5f9ea0\\\",chartreuse:\\\"7fff00\\\",chocolate:\\\"d2691e\\\",coral:\\\"ff7f50\\\",cornflowerblue:\\\"6495ed\\\",cornsilk:\\\"fff8dc\\\",crimson:\\\"dc143c\\\",cyan:\\\"0ff\\\",darkblue:\\\"00008b\\\",darkcyan:\\\"008b8b\\\",darkgoldenrod:\\\"b8860b\\\",darkgray:\\\"a9a9a9\\\",darkgreen:\\\"006400\\\",darkgrey:\\\"a9a9a9\\\",darkkhaki:\\\"bdb76b\\\",darkmagenta:\\\"8b008b\\\",darkolivegreen:\\\"556b2f\\\",darkorange:\\\"ff8c00\\\",darkorchid:\\\"9932cc\\\",darkred:\\\"8b0000\\\",darksalmon:\\\"e9967a\\\",darkseagreen:\\\"8fbc8f\\\",darkslateblue:\\\"483d8b\\\",darkslategray:\\\"2f4f4f\\\",darkslategrey:\\\"2f4f4f\\\",darkturquoise:\\\"00ced1\\\",darkviolet:\\\"9400d3\\\",deeppink:\\\"ff1493\\\",deepskyblue:\\\"00bfff\\\",dimgray:\\\"696969\\\",dimgrey:\\\"696969\\\",dodgerblue:\\\"1e90ff\\\",firebrick:\\\"b22222\\\",floralwhite:\\\"fffaf0\\\",forestgreen:\\\"228b22\\\",fuchsia:\\\"f0f\\\",gainsboro:\\\"dcdcdc\\\",ghostwhite:\\\"f8f8ff\\\",gold:\\\"ffd700\\\",goldenrod:\\\"daa520\\\",gray:\\\"808080\\\",green:\\\"008000\\\",greenyellow:\\\"adff2f\\\",grey:\\\"808080\\\",honeydew:\\\"f0fff0\\\",hotpink:\\\"ff69b4\\\",indianred:\\\"cd5c5c\\\",indigo:\\\"4b0082\\\",ivory:\\\"fffff0\\\",khaki:\\\"f0e68c\\\",lavender:\\\"e6e6fa\\\",lavenderblush:\\\"fff0f5\\\",lawngreen:\\\"7cfc00\\\",lemonchiffon:\\\"fffacd\\\",lightblue:\\\"add8e6\\\",lightcoral:\\\"f08080\\\",lightcyan:\\\"e0ffff\\\",lightgoldenrodyellow:\\\"fafad2\\\",lightgray:\\\"d3d3d3\\\",lightgreen:\\\"90ee90\\\",lightgrey:\\\"d3d3d3\\\",lightpink:\\\"ffb6c1\\\",lightsalmon:\\\"ffa07a\\\",lightseagreen:\\\"20b2aa\\\",lightskyblue:\\\"87cefa\\\",lightslategray:\\\"789\\\",lightslategrey:\\\"789\\\",lightsteelblue:\\\"b0c4de\\\",lightyellow:\\\"ffffe0\\\",lime:\\\"0f0\\\",limegreen:\\\"32cd32\\\",linen:\\\"faf0e6\\\",magenta:\\\"f0f\\\",maroon:\\\"800000\\\",mediumaquamarine:\\\"66cdaa\\\",mediumblue:\\\"0000cd\\\",mediumorchid:\\\"ba55d3\\\",mediumpurple:\\\"9370db\\\",mediumseagreen:\\\"3cb371\\\",mediumslateblue:\\\"7b68ee\\\",mediumspringgreen:\\\"00fa9a\\\",mediumturquoise:\\\"48d1cc\\\",mediumvioletred:\\\"c71585\\\",midnightblue:\\\"191970\\\",mintcream:\\\"f5fffa\\\",mistyrose:\\\"ffe4e1\\\",moccasin:\\\"ffe4b5\\\",navajowhite:\\\"ffdead\\\",navy:\\\"000080\\\",oldlace:\\\"fdf5e6\\\",olive:\\\"808000\\\",olivedrab:\\\"6b8e23\\\",orange:\\\"ffa500\\\",orangered:\\\"ff4500\\\",orchid:\\\"da70d6\\\",palegoldenrod:\\\"eee8aa\\\",palegreen:\\\"98fb98\\\",paleturquoise:\\\"afeeee\\\",palevioletred:\\\"db7093\\\",papayawhip:\\\"ffefd5\\\",peachpuff:\\\"ffdab9\\\",peru:\\\"cd853f\\\",pink:\\\"ffc0cb\\\",plum:\\\"dda0dd\\\",powderblue:\\\"b0e0e6\\\",purple:\\\"800080\\\",rebeccapurple:\\\"663399\\\",red:\\\"f00\\\",rosybrown:\\\"bc8f8f\\\",royalblue:\\\"4169e1\\\",saddlebrown:\\\"8b4513\\\",salmon:\\\"fa8072\\\",sandybrown:\\\"f4a460\\\",seagreen:\\\"2e8b57\\\",seashell:\\\"fff5ee\\\",sienna:\\\"a0522d\\\",silver:\\\"c0c0c0\\\",skyblue:\\\"87ceeb\\\",slateblue:\\\"6a5acd\\\",slategray:\\\"708090\\\",slategrey:\\\"708090\\\",snow:\\\"fffafa\\\",springgreen:\\\"00ff7f\\\",steelblue:\\\"4682b4\\\",tan:\\\"d2b48c\\\",teal:\\\"008080\\\",thistle:\\\"d8bfd8\\\",tomato:\\\"ff6347\\\",turquoise:\\\"40e0d0\\\",violet:\\\"ee82ee\\\",wheat:\\\"f5deb3\\\",white:\\\"fff\\\",whitesmoke:\\\"f5f5f5\\\",yellow:\\\"ff0\\\",yellowgreen:\\\"9acd32\\\"},E=c.hexNames=function(t){var e={};for(var r in t)t.hasOwnProperty(r)&&(e[t[r]]=r);return e}(S);function C(t){return t=parseFloat(t),(isNaN(t)||t<0||t>1)&&(t=1),t}function L(e,r){(function(t){return\\\"string\\\"==typeof t&&-1!=t.indexOf(\\\".\\\")&&1===parseFloat(t)})(e)&&(e=\\\"100%\\\");var n=function(t){return\\\"string\\\"==typeof t&&-1!=t.indexOf(\\\"%\\\")}(e);return e=o(r,s(0,parseFloat(e))),n&&(e=parseInt(e*r,10)/100),t.abs(e-r)<1e-6?1:e%r/parseFloat(r)}function z(t){return o(1,s(0,t))}function O(t){return parseInt(t,16)}function I(t){return 1==t.length?\\\"0\\\"+t:\\\"\\\"+t}function D(t){return t<=1&&(t=100*t+\\\"%\\\"),t}function P(e){return t.round(255*parseFloat(e)).toString(16)}function R(t){return O(t)/255}var F,B,N,j=(B=\\\"[\\\\\\\\s|\\\\\\\\(]+(\\\"+(F=\\\"(?:[-\\\\\\\\+]?\\\\\\\\d*\\\\\\\\.\\\\\\\\d+%?)|(?:[-\\\\\\\\+]?\\\\\\\\d+%?)\\\")+\\\")[,|\\\\\\\\s]+(\\\"+F+\\\")[,|\\\\\\\\s]+(\\\"+F+\\\")\\\\\\\\s*\\\\\\\\)?\\\",N=\\\"[\\\\\\\\s|\\\\\\\\(]+(\\\"+F+\\\")[,|\\\\\\\\s]+(\\\"+F+\\\")[,|\\\\\\\\s]+(\\\"+F+\\\")[,|\\\\\\\\s]+(\\\"+F+\\\")\\\\\\\\s*\\\\\\\\)?\\\",{CSS_UNIT:new RegExp(F),rgb:new RegExp(\\\"rgb\\\"+B),rgba:new RegExp(\\\"rgba\\\"+N),hsl:new RegExp(\\\"hsl\\\"+B),hsla:new RegExp(\\\"hsla\\\"+N),hsv:new RegExp(\\\"hsv\\\"+B),hsva:new RegExp(\\\"hsva\\\"+N),hex3:/^#?([0-9a-fA-F]{1})([0-9a-fA-F]{1})([0-9a-fA-F]{1})$/,hex6:/^#?([0-9a-fA-F]{2})([0-9a-fA-F]{2})([0-9a-fA-F]{2})$/,hex4:/^#?([0-9a-fA-F]{1})([0-9a-fA-F]{1})([0-9a-fA-F]{1})([0-9a-fA-F]{1})$/,hex8:/^#?([0-9a-fA-F]{2})([0-9a-fA-F]{2})([0-9a-fA-F]{2})([0-9a-fA-F]{2})$/});function V(t){return!!j.CSS_UNIT.exec(t)}\\\"undefined\\\"!=typeof e&&e.exports?e.exports=c:window.tinycolor=c}(Math)},{}],525:[function(t,e,r){\\\"use strict\\\";e.exports=i,e.exports.float32=e.exports.float=i,e.exports.fract32=e.exports.fract=function(t){if(t.length){for(var e=i(t),r=0,n=e.length;r<n;r++)e[r]=t[r]-e[r];return e}return i(t-i(t))};var n=new Float32Array(1);function i(t){if(t.length){if(t instanceof Float32Array)return t;var e=new Float32Array(t);return e.set(t),e}return n[0]=t,n[0]}},{}],526:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"parse-unit\\\");e.exports=o;var i=96;function a(t,e){var r=n(getComputedStyle(t).getPropertyValue(e));return r[0]*o(r[1],t)}function o(t,e){switch(e=e||document.body,t=(t||\\\"px\\\").trim().toLowerCase(),e!==window&&e!==document||(e=document.body),t){case\\\"%\\\":return e.clientHeight/100;case\\\"ch\\\":case\\\"ex\\\":return function(t,e){var r=document.createElement(\\\"div\\\");r.style[\\\"font-size\\\"]=\\\"128\\\"+t,e.appendChild(r);var n=a(r,\\\"font-size\\\")/128;return e.removeChild(r),n}(t,e);case\\\"em\\\":return a(e,\\\"font-size\\\");case\\\"rem\\\":return a(document.body,\\\"font-size\\\");case\\\"vw\\\":return window.innerWidth/100;case\\\"vh\\\":return window.innerHeight/100;case\\\"vmin\\\":return Math.min(window.innerWidth,window.innerHeight)/100;case\\\"vmax\\\":return Math.max(window.innerWidth,window.innerHeight)/100;case\\\"in\\\":return i;case\\\"cm\\\":return i/2.54;case\\\"mm\\\":return i/25.4;case\\\"pt\\\":return i/72;case\\\"pc\\\":return i/6}return 1}},{\\\"parse-unit\\\":456}],527:[function(t,e,r){var n;n=this,function(t){\\\"use strict\\\";var e=function(t){return t},r=function(t){if(null==(r=t.transform))return e;var r,n,i,a=r.scale[0],o=r.scale[1],s=r.translate[0],l=r.translate[1];return function(t,e){return e||(n=i=0),t[0]=(n+=t[0])*a+s,t[1]=(i+=t[1])*o+l,t}},n=function(t){var e=t.bbox;function n(t){l[0]=t[0],l[1]=t[1],s(l),l[0]<c&&(c=l[0]),l[0]>f&&(f=l[0]),l[1]<u&&(u=l[1]),l[1]>h&&(h=l[1])}function i(t){switch(t.type){case\\\"GeometryCollection\\\":t.geometries.forEach(i);break;case\\\"Point\\\":n(t.coordinates);break;case\\\"MultiPoint\\\":t.coordinates.forEach(n)}}if(!e){var a,o,s=r(t),l=new Array(2),c=1/0,u=c,f=-c,h=-c;for(o in t.arcs.forEach(function(t){for(var e=-1,r=t.length;++e<r;)a=t[e],l[0]=a[0],l[1]=a[1],s(l,e),l[0]<c&&(c=l[0]),l[0]>f&&(f=l[0]),l[1]<u&&(u=l[1]),l[1]>h&&(h=l[1])}),t.objects)i(t.objects[o]);e=t.bbox=[c,u,f,h]}return e},i=function(t,e){for(var r,n=t.length,i=n-e;i<--n;)r=t[i],t[i++]=t[n],t[n]=r};function a(t,e){var r=e.id,n=e.bbox,i=null==e.properties?{}:e.properties,a=o(t,e);return null==r&&null==n?{type:\\\"Feature\\\",properties:i,geometry:a}:null==n?{type:\\\"Feature\\\",id:r,properties:i,geometry:a}:{type:\\\"Feature\\\",id:r,bbox:n,properties:i,geometry:a}}function o(t,e){var n=r(t),a=t.arcs;function o(t,e){e.length&&e.pop();for(var r=a[t<0?~t:t],o=0,s=r.length;o<s;++o)e.push(n(r[o].slice(),o));t<0&&i(e,s)}function s(t){return n(t.slice())}function l(t){for(var e=[],r=0,n=t.length;r<n;++r)o(t[r],e);return e.length<2&&e.push(e[0].slice()),e}function c(t){for(var e=l(t);e.length<4;)e.push(e[0].slice());return e}function u(t){return t.map(c)}return function t(e){var r,n=e.type;switch(n){case\\\"GeometryCollection\\\":return{type:n,geometries:e.geometries.map(t)};case\\\"Point\\\":r=s(e.coordinates);break;case\\\"MultiPoint\\\":r=e.coordinates.map(s);break;case\\\"LineString\\\":r=l(e.arcs);break;case\\\"MultiLineString\\\":r=e.arcs.map(l);break;case\\\"Polygon\\\":r=u(e.arcs);break;case\\\"MultiPolygon\\\":r=e.arcs.map(u);break;default:return null}return{type:n,coordinates:r}}(e)}var s=function(t,e){var r={},n={},i={},a=[],o=-1;function s(t,e){for(var n in t){var i=t[n];delete e[i.start],delete i.start,delete i.end,i.forEach(function(t){r[t<0?~t:t]=1}),a.push(i)}}return e.forEach(function(r,n){var i,a=t.arcs[r<0?~r:r];a.length<3&&!a[1][0]&&!a[1][1]&&(i=e[++o],e[o]=r,e[n]=i)}),e.forEach(function(e){var r,a,o=function(e){var r,n=t.arcs[e<0?~e:e],i=n[0];t.transform?(r=[0,0],n.forEach(function(t){r[0]+=t[0],r[1]+=t[1]})):r=n[n.length-1];return e<0?[r,i]:[i,r]}(e),s=o[0],l=o[1];if(r=i[s])if(delete i[r.end],r.push(e),r.end=l,a=n[l]){delete n[a.start];var c=a===r?r:r.concat(a);n[c.start=r.start]=i[c.end=a.end]=c}else n[r.start]=i[r.end]=r;else if(r=n[l])if(delete n[r.start],r.unshift(e),r.start=s,a=i[s]){delete i[a.end];var u=a===r?r:a.concat(r);n[u.start=a.start]=i[u.end=r.end]=u}else n[r.start]=i[r.end]=r;else n[(r=[e]).start=s]=i[r.end=l]=r}),s(i,n),s(n,i),e.forEach(function(t){r[t<0?~t:t]||a.push([t])}),a};function l(t,e,r){var n,i,a;if(arguments.length>1)n=function(t,e,r){var n,i=[],a=[];function o(t){var e=t<0?~t:t;(a[e]||(a[e]=[])).push({i:t,g:n})}function s(t){t.forEach(o)}function l(t){t.forEach(s)}return function t(e){switch(n=e,e.type){case\\\"GeometryCollection\\\":e.geometries.forEach(t);break;case\\\"LineString\\\":s(e.arcs);break;case\\\"MultiLineString\\\":case\\\"Polygon\\\":l(e.arcs);break;case\\\"MultiPolygon\\\":e.arcs.forEach(l)}}(e),a.forEach(null==r?function(t){i.push(t[0].i)}:function(t){r(t[0].g,t[t.length-1].g)&&i.push(t[0].i)}),i}(0,e,r);else for(i=0,n=new Array(a=t.arcs.length);i<a;++i)n[i]=i;return{type:\\\"MultiLineString\\\",arcs:s(t,n)}}function c(t,e){var r={},n=[],i=[];function a(t){t.forEach(function(e){e.forEach(function(e){(r[e=e<0?~e:e]||(r[e]=[])).push(t)})}),n.push(t)}function l(e){return function(t){for(var e,r=-1,n=t.length,i=t[n-1],a=0;++r<n;)e=i,i=t[r],a+=e[0]*i[1]-e[1]*i[0];return Math.abs(a)}(o(t,{type:\\\"Polygon\\\",arcs:[e]}).coordinates[0])}return e.forEach(function t(e){switch(e.type){case\\\"GeometryCollection\\\":e.geometries.forEach(t);break;case\\\"Polygon\\\":a(e.arcs);break;case\\\"MultiPolygon\\\":e.arcs.forEach(a)}}),n.forEach(function(t){if(!t._){var e=[],n=[t];for(t._=1,i.push(e);t=n.pop();)e.push(t),t.forEach(function(t){t.forEach(function(t){r[t<0?~t:t].forEach(function(t){t._||(t._=1,n.push(t))})})})}}),n.forEach(function(t){delete t._}),{type:\\\"MultiPolygon\\\",arcs:i.map(function(e){var n,i=[];if(e.forEach(function(t){t.forEach(function(t){t.forEach(function(t){r[t<0?~t:t].length<2&&i.push(t)})})}),(n=(i=s(t,i)).length)>1)for(var a,o,c=1,u=l(i[0]);c<n;++c)(a=l(i[c]))>u&&(o=i[0],i[0]=i[c],i[c]=o,u=a);return i})}}var u=function(t,e){for(var r=0,n=t.length;r<n;){var i=r+n>>>1;t[i]<e?r=i+1:n=i}return r};t.bbox=n,t.feature=function(t,e){return\\\"GeometryCollection\\\"===e.type?{type:\\\"FeatureCollection\\\",features:e.geometries.map(function(e){return a(t,e)})}:a(t,e)},t.mesh=function(t){return o(t,l.apply(this,arguments))},t.meshArcs=l,t.merge=function(t){return o(t,c.apply(this,arguments))},t.mergeArcs=c,t.neighbors=function(t){var e={},r=t.map(function(){return[]});function n(t,r){t.forEach(function(t){t<0&&(t=~t);var n=e[t];n?n.push(r):e[t]=[r]})}function i(t,e){t.forEach(function(t){n(t,e)})}var a={LineString:n,MultiLineString:i,Polygon:i,MultiPolygon:function(t,e){t.forEach(function(t){i(t,e)})}};for(var o in t.forEach(function t(e,r){\\\"GeometryCollection\\\"===e.type?e.geometries.forEach(function(e){t(e,r)}):e.type in a&&a[e.type](e.arcs,r)}),e)for(var s=e[o],l=s.length,c=0;c<l;++c)for(var f=c+1;f<l;++f){var h,p=s[c],d=s[f];(h=r[p])[o=u(h,d)]!==d&&h.splice(o,0,d),(h=r[d])[o=u(h,p)]!==p&&h.splice(o,0,p)}return r},t.quantize=function(t,e){if(!((e=Math.floor(e))>=2))throw new Error(\\\"n must be \\\\u22652\\\");if(t.transform)throw new Error(\\\"already quantized\\\");var r,i=n(t),a=i[0],o=(i[2]-a)/(e-1)||1,s=i[1],l=(i[3]-s)/(e-1)||1;function c(t){t[0]=Math.round((t[0]-a)/o),t[1]=Math.round((t[1]-s)/l)}function u(t){switch(t.type){case\\\"GeometryCollection\\\":t.geometries.forEach(u);break;case\\\"Point\\\":c(t.coordinates);break;case\\\"MultiPoint\\\":t.coordinates.forEach(c)}}for(r in t.arcs.forEach(function(t){for(var e,r,n,i=1,c=1,u=t.length,f=t[0],h=f[0]=Math.round((f[0]-a)/o),p=f[1]=Math.round((f[1]-s)/l);i<u;++i)f=t[i],r=Math.round((f[0]-a)/o),n=Math.round((f[1]-s)/l),r===h&&n===p||((e=t[c++])[0]=r-h,h=r,e[1]=n-p,p=n);c<2&&((e=t[c++])[0]=0,e[1]=0),t.length=c}),t.objects)u(t.objects[r]);return t.transform={scale:[o,l],translate:[a,s]},t},t.transform=r,t.untransform=function(t){if(null==(r=t.transform))return e;var r,n,i,a=r.scale[0],o=r.scale[1],s=r.translate[0],l=r.translate[1];return function(t,e){e||(n=i=0);var r=Math.round((t[0]-s)/a),c=Math.round((t[1]-l)/o);return t[0]=r-n,n=r,t[1]=c-i,i=c,t}},Object.defineProperty(t,\\\"__esModule\\\",{value:!0})}(\\\"object\\\"==typeof r&&\\\"undefined\\\"!=typeof e?r:n.topojson=n.topojson||{})},{}],528:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){if(t<0)return[];if(0===t)return[[0]];for(var e=0|Math.round(a(t+1)),r=[],o=0;o<e;++o){for(var s=n.unrank(t,o),l=[0],c=0,u=0;u<s.length;++u)c+=1<<s[u],l.push(c);i(s)<1&&(l[0]=c,l[t]=0),r.push(l)}return r};var n=t(\\\"permutation-rank\\\"),i=t(\\\"permutation-parity\\\"),a=t(\\\"gamma\\\")},{gamma:230,\\\"permutation-parity\\\":458,\\\"permutation-rank\\\":459}],529:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=(t=t||{}).center||[0,0,0],r=t.up||[0,1,0],n=t.right||f(r),i=t.radius||1,a=t.theta||0,u=t.phi||0;if(e=[].slice.call(e,0,3),r=[].slice.call(r,0,3),s(r,r),n=[].slice.call(n,0,3),s(n,n),\\\"eye\\\"in t){var p=t.eye,d=[p[0]-e[0],p[1]-e[1],p[2]-e[2]];o(n,d,r),c(n[0],n[1],n[2])<1e-6?n=f(r):s(n,n),i=c(d[0],d[1],d[2]);var g=l(r,d)/i,v=l(n,d)/i;u=Math.acos(g),a=Math.acos(v)}return i=Math.log(i),new h(t.zoomMin,t.zoomMax,e,r,n,i,a,u)};var n=t(\\\"filtered-vector\\\"),i=t(\\\"gl-mat4/invert\\\"),a=t(\\\"gl-mat4/rotate\\\"),o=t(\\\"gl-vec3/cross\\\"),s=t(\\\"gl-vec3/normalize\\\"),l=t(\\\"gl-vec3/dot\\\");function c(t,e,r){return Math.sqrt(Math.pow(t,2)+Math.pow(e,2)+Math.pow(r,2))}function u(t){return Math.min(1,Math.max(-1,t))}function f(t){var e=Math.abs(t[0]),r=Math.abs(t[1]),n=Math.abs(t[2]),i=[0,0,0];e>Math.max(r,n)?i[2]=1:r>Math.max(e,n)?i[0]=1:i[1]=1;for(var a=0,o=0,l=0;l<3;++l)a+=t[l]*t[l],o+=i[l]*t[l];for(l=0;l<3;++l)i[l]-=o/a*t[l];return s(i,i),i}function h(t,e,r,i,a,o,s,l){this.center=n(r),this.up=n(i),this.right=n(a),this.radius=n([o]),this.angle=n([s,l]),this.angle.bounds=[[-1/0,-Math.PI/2],[1/0,Math.PI/2]],this.setDistanceLimits(t,e),this.computedCenter=this.center.curve(0),this.computedUp=this.up.curve(0),this.computedRight=this.right.curve(0),this.computedRadius=this.radius.curve(0),this.computedAngle=this.angle.curve(0),this.computedToward=[0,0,0],this.computedEye=[0,0,0],this.computedMatrix=new Array(16);for(var c=0;c<16;++c)this.computedMatrix[c]=.5;this.recalcMatrix(0)}var p=h.prototype;p.setDistanceLimits=function(t,e){t=t>0?Math.log(t):-1/0,e=e>0?Math.log(e):1/0,e=Math.max(e,t),this.radius.bounds[0][0]=t,this.radius.bounds[1][0]=e},p.getDistanceLimits=function(t){var e=this.radius.bounds[0];return t?(t[0]=Math.exp(e[0][0]),t[1]=Math.exp(e[1][0]),t):[Math.exp(e[0][0]),Math.exp(e[1][0])]},p.recalcMatrix=function(t){this.center.curve(t),this.up.curve(t),this.right.curve(t),this.radius.curve(t),this.angle.curve(t);for(var e=this.computedUp,r=this.computedRight,n=0,i=0,a=0;a<3;++a)i+=e[a]*r[a],n+=e[a]*e[a];var l=Math.sqrt(n),u=0;for(a=0;a<3;++a)r[a]-=e[a]*i/n,u+=r[a]*r[a],e[a]/=l;var f=Math.sqrt(u);for(a=0;a<3;++a)r[a]/=f;var h=this.computedToward;o(h,e,r),s(h,h);var p=Math.exp(this.computedRadius[0]),d=this.computedAngle[0],g=this.computedAngle[1],v=Math.cos(d),m=Math.sin(d),y=Math.cos(g),x=Math.sin(g),b=this.computedCenter,_=v*y,w=m*y,k=x,T=-v*x,A=-m*x,M=y,S=this.computedEye,E=this.computedMatrix;for(a=0;a<3;++a){var C=_*r[a]+w*h[a]+k*e[a];E[4*a+1]=T*r[a]+A*h[a]+M*e[a],E[4*a+2]=C,E[4*a+3]=0}var L=E[1],z=E[5],O=E[9],I=E[2],D=E[6],P=E[10],R=z*P-O*D,F=O*I-L*P,B=L*D-z*I,N=c(R,F,B);R/=N,F/=N,B/=N,E[0]=R,E[4]=F,E[8]=B;for(a=0;a<3;++a)S[a]=b[a]+E[2+4*a]*p;for(a=0;a<3;++a){u=0;for(var j=0;j<3;++j)u+=E[a+4*j]*S[j];E[12+a]=-u}E[15]=1},p.getMatrix=function(t,e){this.recalcMatrix(t);var r=this.computedMatrix;if(e){for(var n=0;n<16;++n)e[n]=r[n];return e}return r};var d=[0,0,0];p.rotate=function(t,e,r,n){if(this.angle.move(t,e,r),n){this.recalcMatrix(t);var i=this.computedMatrix;d[0]=i[2],d[1]=i[6],d[2]=i[10];for(var o=this.computedUp,s=this.computedRight,l=this.computedToward,c=0;c<3;++c)i[4*c]=o[c],i[4*c+1]=s[c],i[4*c+2]=l[c];a(i,i,n,d);for(c=0;c<3;++c)o[c]=i[4*c],s[c]=i[4*c+1];this.up.set(t,o[0],o[1],o[2]),this.right.set(t,s[0],s[1],s[2])}},p.pan=function(t,e,r,n){e=e||0,r=r||0,n=n||0,this.recalcMatrix(t);var i=this.computedMatrix,a=(Math.exp(this.computedRadius[0]),i[1]),o=i[5],s=i[9],l=c(a,o,s);a/=l,o/=l,s/=l;var u=i[0],f=i[4],h=i[8],p=u*a+f*o+h*s,d=c(u-=a*p,f-=o*p,h-=s*p),g=(u/=d)*e+a*r,v=(f/=d)*e+o*r,m=(h/=d)*e+s*r;this.center.move(t,g,v,m);var y=Math.exp(this.computedRadius[0]);y=Math.max(1e-4,y+n),this.radius.set(t,Math.log(y))},p.translate=function(t,e,r,n){this.center.move(t,e||0,r||0,n||0)},p.setMatrix=function(t,e,r,n){var a=1;\\\"number\\\"==typeof r&&(a=0|r),(a<0||a>3)&&(a=1);var o=(a+2)%3;e||(this.recalcMatrix(t),e=this.computedMatrix);var s=e[a],l=e[a+4],f=e[a+8];if(n){var h=Math.abs(s),p=Math.abs(l),d=Math.abs(f),g=Math.max(h,p,d);h===g?(s=s<0?-1:1,l=f=0):d===g?(f=f<0?-1:1,s=l=0):(l=l<0?-1:1,s=f=0)}else{var v=c(s,l,f);s/=v,l/=v,f/=v}var m,y,x=e[o],b=e[o+4],_=e[o+8],w=x*s+b*l+_*f,k=c(x-=s*w,b-=l*w,_-=f*w),T=l*(_/=k)-f*(b/=k),A=f*(x/=k)-s*_,M=s*b-l*x,S=c(T,A,M);if(T/=S,A/=S,M/=S,this.center.jump(t,q,G,Y),this.radius.idle(t),this.up.jump(t,s,l,f),this.right.jump(t,x,b,_),2===a){var E=e[1],C=e[5],L=e[9],z=E*x+C*b+L*_,O=E*T+C*A+L*M;m=R<0?-Math.PI/2:Math.PI/2,y=Math.atan2(O,z)}else{var I=e[2],D=e[6],P=e[10],R=I*s+D*l+P*f,F=I*x+D*b+P*_,B=I*T+D*A+P*M;m=Math.asin(u(R)),y=Math.atan2(B,F)}this.angle.jump(t,y,m),this.recalcMatrix(t);var N=e[2],j=e[6],V=e[10],U=this.computedMatrix;i(U,e);var H=U[15],q=U[12]/H,G=U[13]/H,Y=U[14]/H,W=Math.exp(this.computedRadius[0]);this.center.jump(t,q-N*W,G-j*W,Y-V*W)},p.lastT=function(){return Math.max(this.center.lastT(),this.up.lastT(),this.right.lastT(),this.radius.lastT(),this.angle.lastT())},p.idle=function(t){this.center.idle(t),this.up.idle(t),this.right.idle(t),this.radius.idle(t),this.angle.idle(t)},p.flush=function(t){this.center.flush(t),this.up.flush(t),this.right.flush(t),this.radius.flush(t),this.angle.flush(t)},p.setDistance=function(t,e){e>0&&this.radius.set(t,Math.log(e))},p.lookAt=function(t,e,r,n){this.recalcMatrix(t),e=e||this.computedEye,r=r||this.computedCenter;var i=(n=n||this.computedUp)[0],a=n[1],o=n[2],s=c(i,a,o);if(!(s<1e-6)){i/=s,a/=s,o/=s;var l=e[0]-r[0],f=e[1]-r[1],h=e[2]-r[2],p=c(l,f,h);if(!(p<1e-6)){l/=p,f/=p,h/=p;var d=this.computedRight,g=d[0],v=d[1],m=d[2],y=i*g+a*v+o*m,x=c(g-=y*i,v-=y*a,m-=y*o);if(!(x<.01&&(x=c(g=a*h-o*f,v=o*l-i*h,m=i*f-a*l))<1e-6)){g/=x,v/=x,m/=x,this.up.set(t,i,a,o),this.right.set(t,g,v,m),this.center.set(t,r[0],r[1],r[2]),this.radius.set(t,Math.log(p));var b=a*m-o*v,_=o*g-i*m,w=i*v-a*g,k=c(b,_,w),T=i*l+a*f+o*h,A=g*l+v*f+m*h,M=(b/=k)*l+(_/=k)*f+(w/=k)*h,S=Math.asin(u(T)),E=Math.atan2(M,A),C=this.angle._state,L=C[C.length-1],z=C[C.length-2];L%=2*Math.PI;var O=Math.abs(L+2*Math.PI-E),I=Math.abs(L-E),D=Math.abs(L-2*Math.PI-E);O<I&&(L+=2*Math.PI),D<I&&(L-=2*Math.PI),this.angle.jump(this.angle.lastT(),L,z),this.angle.set(t,E,S)}}}}},{\\\"filtered-vector\\\":225,\\\"gl-mat4/invert\\\":264,\\\"gl-mat4/rotate\\\":269,\\\"gl-vec3/cross\\\":329,\\\"gl-vec3/dot\\\":334,\\\"gl-vec3/normalize\\\":351}],530:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){var i=t*e,a=n*t,o=a-(a-t),s=t-o,l=n*e,c=l-(l-e),u=e-c,f=s*u-(i-o*c-s*c-o*u);if(r)return r[0]=f,r[1]=i,r;return[f,i]};var n=+(Math.pow(2,27)+1)},{}],531:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){var n=t+e,i=n-t,a=e-i,o=t-(n-i);if(r)return r[0]=o+a,r[1]=n,r;return[o+a,n]}},{}],532:[function(t,e,r){(function(e,n){\\\"use strict\\\";var i=t(\\\"bit-twiddle\\\"),a=t(\\\"dup\\\");e.__TYPEDARRAY_POOL||(e.__TYPEDARRAY_POOL={UINT8:a([32,0]),UINT16:a([32,0]),UINT32:a([32,0]),INT8:a([32,0]),INT16:a([32,0]),INT32:a([32,0]),FLOAT:a([32,0]),DOUBLE:a([32,0]),DATA:a([32,0]),UINT8C:a([32,0]),BUFFER:a([32,0])});var o=\\\"undefined\\\"!=typeof Uint8ClampedArray,s=e.__TYPEDARRAY_POOL;s.UINT8C||(s.UINT8C=a([32,0])),s.BUFFER||(s.BUFFER=a([32,0]));var l=s.DATA,c=s.BUFFER;function u(t){if(t){var e=t.length||t.byteLength,r=i.log2(e);l[r].push(t)}}function f(t){t=i.nextPow2(t);var e=i.log2(t),r=l[e];return r.length>0?r.pop():new ArrayBuffer(t)}function h(t){return new Uint8Array(f(t),0,t)}function p(t){return new Uint16Array(f(2*t),0,t)}function d(t){return new Uint32Array(f(4*t),0,t)}function g(t){return new Int8Array(f(t),0,t)}function v(t){return new Int16Array(f(2*t),0,t)}function m(t){return new Int32Array(f(4*t),0,t)}function y(t){return new Float32Array(f(4*t),0,t)}function x(t){return new Float64Array(f(8*t),0,t)}function b(t){return o?new Uint8ClampedArray(f(t),0,t):h(t)}function _(t){return new DataView(f(t),0,t)}function w(t){t=i.nextPow2(t);var e=i.log2(t),r=c[e];return r.length>0?r.pop():new n(t)}r.free=function(t){if(n.isBuffer(t))c[i.log2(t.length)].push(t);else{if(\\\"[object ArrayBuffer]\\\"!==Object.prototype.toString.call(t)&&(t=t.buffer),!t)return;var e=t.length||t.byteLength,r=0|i.log2(e);l[r].push(t)}},r.freeUint8=r.freeUint16=r.freeUint32=r.freeInt8=r.freeInt16=r.freeInt32=r.freeFloat32=r.freeFloat=r.freeFloat64=r.freeDouble=r.freeUint8Clamped=r.freeDataView=function(t){u(t.buffer)},r.freeArrayBuffer=u,r.freeBuffer=function(t){c[i.log2(t.length)].push(t)},r.malloc=function(t,e){if(void 0===e||\\\"arraybuffer\\\"===e)return f(t);switch(e){case\\\"uint8\\\":return h(t);case\\\"uint16\\\":return p(t);case\\\"uint32\\\":return d(t);case\\\"int8\\\":return g(t);case\\\"int16\\\":return v(t);case\\\"int32\\\":return m(t);case\\\"float\\\":case\\\"float32\\\":return y(t);case\\\"double\\\":case\\\"float64\\\":return x(t);case\\\"uint8_clamped\\\":return b(t);case\\\"buffer\\\":return w(t);case\\\"data\\\":case\\\"dataview\\\":return _(t);default:return null}return null},r.mallocArrayBuffer=f,r.mallocUint8=h,r.mallocUint16=p,r.mallocUint32=d,r.mallocInt8=g,r.mallocInt16=v,r.mallocInt32=m,r.mallocFloat32=r.mallocFloat=y,r.mallocFloat64=r.mallocDouble=x,r.mallocUint8Clamped=b,r.mallocDataView=_,r.mallocBuffer=w,r.clearCache=function(){for(var t=0;t<32;++t)s.UINT8[t].length=0,s.UINT16[t].length=0,s.UINT32[t].length=0,s.INT8[t].length=0,s.INT16[t].length=0,s.INT32[t].length=0,s.FLOAT[t].length=0,s.DOUBLE[t].length=0,s.UINT8C[t].length=0,l[t].length=0,c[t].length=0}}).call(this,\\\"undefined\\\"!=typeof global?global:\\\"undefined\\\"!=typeof self?self:\\\"undefined\\\"!=typeof window?window:{},t(\\\"buffer\\\").Buffer)},{\\\"bit-twiddle\\\":85,buffer:98,dup:164}],533:[function(t,e,r){\\\"use strict\\\";function n(t){this.roots=new Array(t),this.ranks=new Array(t);for(var e=0;e<t;++e)this.roots[e]=e,this.ranks[e]=0}e.exports=n;var i=n.prototype;Object.defineProperty(i,\\\"length\\\",{get:function(){return this.roots.length}}),i.makeSet=function(){var t=this.roots.length;return this.roots.push(t),this.ranks.push(0),t},i.find=function(t){for(var e=t,r=this.roots;r[t]!==t;)t=r[t];for(;r[e]!==t;){var n=r[e];r[e]=t,e=n}return t},i.link=function(t,e){var r=this.find(t),n=this.find(e);if(r!==n){var i=this.ranks,a=this.roots,o=i[r],s=i[n];o<s?a[r]=n:s<o?a[n]=r:(a[n]=r,++i[r])}}},{}],534:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){return 0===t.length?t:e?(r||t.sort(e),function(t,e){for(var r=1,n=t.length,i=t[0],a=t[0],o=1;o<n;++o)if(a=i,e(i=t[o],a)){if(o===r){r++;continue}t[r++]=i}return t.length=r,t}(t,e)):(r||t.sort(),function(t){for(var e=1,r=t.length,n=t[0],i=t[0],a=1;a<r;++a,i=n)if(i=n,(n=t[a])!==i){if(a===e){e++;continue}t[e++]=n}return t.length=e,t}(t))}},{}],535:[function(t,e,r){var n=/[\\\\'\\\\\\\"]/;e.exports=function(t){return t?(n.test(t.charAt(0))&&(t=t.substr(1)),n.test(t.charAt(t.length-1))&&(t=t.substr(0,t.length-1)),t):\\\"\\\"}},{}],536:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){Array.isArray(r)||(r=[].slice.call(arguments,2));for(var n=0,i=r.length;n<i;n++){var a=r[n];for(var o in a)if((void 0===e[o]||Array.isArray(e[o])||t[o]!==e[o])&&o in e){var s;if(!0===a[o])s=e[o];else{if(!1===a[o])continue;if(\\\"function\\\"==typeof a[o]&&void 0===(s=a[o](e[o],t,e)))continue}t[o]=s}}return t}},{}],537:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){\\\"object\\\"==typeof e&&null!==e||(e={});return n(t,e.canvas||i,e.context||a,e)};var n=t(\\\"./lib/vtext\\\"),i=null,a=null;\\\"undefined\\\"!=typeof document&&((i=document.createElement(\\\"canvas\\\")).width=8192,i.height=1024,a=i.getContext(\\\"2d\\\"))},{\\\"./lib/vtext\\\":538}],538:[function(t,e,r){e.exports=function(t,e,r,n){var a=64,o=1.25,s={breaklines:!1,bolds:!1,italics:!1,subscripts:!1,superscripts:!1};n&&(n.size&&n.size>0&&(a=n.size),n.lineSpacing&&n.lineSpacing>0&&(o=n.lineSpacing),n.styletags&&n.styletags.breaklines&&(s.breaklines=!!n.styletags.breaklines),n.styletags&&n.styletags.bolds&&(s.bolds=!!n.styletags.bolds),n.styletags&&n.styletags.italics&&(s.italics=!!n.styletags.italics),n.styletags&&n.styletags.subscripts&&(s.subscripts=!!n.styletags.subscripts),n.styletags&&n.styletags.superscripts&&(s.superscripts=!!n.styletags.superscripts));return r.font=[n.fontStyle,n.fontVariant,n.fontWeight,a+\\\"px\\\",n.font].filter(function(t){return t}).join(\\\" \\\"),r.textAlign=\\\"start\\\",r.textBaseline=\\\"alphabetic\\\",r.direction=\\\"ltr\\\",w(function(t,e,r,n,a,o){r=r.replace(/\\\\n/g,\\\"\\\"),r=!0===o.breaklines?r.replace(/\\\\<br\\\\>/g,\\\"\\\\n\\\"):r.replace(/\\\\<br\\\\>/g,\\\" \\\");var s=\\\"\\\",l=[];for(k=0;k<r.length;++k)l[k]=s;!0===o.bolds&&(l=x(c,u,r,l)),!0===o.italics&&(l=x(f,h,r,l)),!0===o.superscripts&&(l=x(p,g,r,l)),!0===o.subscripts&&(l=x(v,y,r,l));var b=[],_=\\\"\\\";for(k=0;k<r.length;++k)null!==l[k]&&(_+=r[k],b.push(l[k]));var w,k,T,A,M,S=_.split(\\\"\\\\n\\\"),E=S.length,C=Math.round(a*n),L=n,z=2*n,O=0,I=E*C+z;t.height<I&&(t.height=I),e.fillStyle=\\\"#000\\\",e.fillRect(0,0,t.width,t.height),e.fillStyle=\\\"#fff\\\";var D=0,P=\\\"\\\";function R(){if(\\\"\\\"!==P){var t=e.measureText(P).width;e.fillText(P,L+T,z+A),T+=t}}function F(){return Math.round(M)+\\\"px \\\"}function B(t,r){var n=\\\"\\\"+e.font;if(!0===o.subscripts){var i=t.indexOf(m),a=r.indexOf(m),s=i>-1?parseInt(t[1+i]):0,l=a>-1?parseInt(r[1+a]):0;s!==l&&(n=n.replace(F(),\\\"?px \\\"),M*=Math.pow(.75,l-s),n=n.replace(\\\"?px \\\",F())),A+=.25*C*(l-s)}if(!0===o.superscripts){var c=t.indexOf(d),f=r.indexOf(d),p=c>-1?parseInt(t[1+c]):0,g=f>-1?parseInt(r[1+f]):0;p!==g&&(n=n.replace(F(),\\\"?px \\\"),M*=Math.pow(.75,g-p),n=n.replace(\\\"?px \\\",F())),A-=.25*C*(g-p)}if(!0===o.bolds){var v=t.indexOf(u)>-1,y=r.indexOf(u)>-1;!v&&y&&(n=x?n.replace(\\\"italic \\\",\\\"italic bold \\\"):\\\"bold \\\"+n),v&&!y&&(n=n.replace(\\\"bold \\\",\\\"\\\"))}if(!0===o.italics){var x=t.indexOf(h)>-1,b=r.indexOf(h)>-1;!x&&b&&(n=\\\"italic \\\"+n),x&&!b&&(n=n.replace(\\\"italic \\\",\\\"\\\"))}e.font=n}for(w=0;w<E;++w){var N=S[w]+\\\"\\\\n\\\";for(T=0,A=w*C,M=n,P=\\\"\\\",k=0;k<N.length;++k){var j=k+D<b.length?b[k+D]:b[b.length-1];s===j?P+=N[k]:(R(),P=N[k],void 0!==j&&(B(s,j),s=j))}R(),D+=N.length;var V=0|Math.round(T+2*L);O<V&&(O=V)}var U=O,H=z+C*E;return i(e.getImageData(0,0,U,H).data,[H,U,4]).pick(-1,-1,0).transpose(1,0)}(e,r,t,a,o,s),n,a)},e.exports.processPixels=w;var n=t(\\\"surface-nets\\\"),i=t(\\\"ndarray\\\"),a=t(\\\"simplify-planar-graph\\\"),o=t(\\\"clean-pslg\\\"),s=t(\\\"cdt2d\\\"),l=t(\\\"planar-graph-to-polyline\\\"),c=\\\"b\\\",u=\\\"b|\\\",f=\\\"i\\\",h=\\\"i|\\\",p=\\\"sup\\\",d=\\\"+\\\",g=\\\"+1\\\",v=\\\"sub\\\",m=\\\"-\\\",y=\\\"-1\\\";function x(t,e,r,n){for(var i=\\\"<\\\"+t+\\\">\\\",a=\\\"</\\\"+t+\\\">\\\",o=i.length,s=a.length,l=e[0]===d||e[0]===m,c=0,u=-s;c>-1&&-1!==(c=r.indexOf(i,c))&&-1!==(u=r.indexOf(a,c+o))&&!(u<=c);){for(var f=c;f<u+s;++f)if(f<c+o||f>=u)n[f]=null,r=r.substr(0,f)+\\\" \\\"+r.substr(f+1);else if(null!==n[f]){var h=n[f].indexOf(e[0]);-1===h?n[f]+=e:l&&(n[f]=n[f].substr(0,h+1)+(1+parseInt(n[f][h+1]))+n[f].substr(h+2))}var p=c+o,g=r.substr(p,u-p).indexOf(i);c=-1!==g?g:u+s}return n}function b(t,e){var r=n(t,128);return e?a(r.cells,r.positions,.25):{edges:r.cells,positions:r.positions}}function _(t,e,r,n){var i=b(t,n),a=function(t,e,r){for(var n=e.textAlign||\\\"start\\\",i=e.textBaseline||\\\"alphabetic\\\",a=[1<<30,1<<30],o=[0,0],s=t.length,l=0;l<s;++l)for(var c=t[l],u=0;u<2;++u)a[u]=0|Math.min(a[u],c[u]),o[u]=0|Math.max(o[u],c[u]);var f=0;switch(n){case\\\"center\\\":f=-.5*(a[0]+o[0]);break;case\\\"right\\\":case\\\"end\\\":f=-o[0];break;case\\\"left\\\":case\\\"start\\\":f=-a[0];break;default:throw new Error(\\\"vectorize-text: Unrecognized textAlign: '\\\"+n+\\\"'\\\")}var h=0;switch(i){case\\\"hanging\\\":case\\\"top\\\":h=-a[1];break;case\\\"middle\\\":h=-.5*(a[1]+o[1]);break;case\\\"alphabetic\\\":case\\\"ideographic\\\":h=-3*r;break;case\\\"bottom\\\":h=-o[1];break;default:throw new Error(\\\"vectorize-text: Unrecoginized textBaseline: '\\\"+i+\\\"'\\\")}var p=1/r;return\\\"lineHeight\\\"in e?p*=+e.lineHeight:\\\"width\\\"in e?p=e.width/(o[0]-a[0]):\\\"height\\\"in e&&(p=e.height/(o[1]-a[1])),t.map(function(t){return[p*(t[0]+f),p*(t[1]+h)]})}(i.positions,e,r),c=i.edges,u=\\\"ccw\\\"===e.orientation;if(o(a,c),e.polygons||e.polygon||e.polyline){for(var f=l(c,a),h=new Array(f.length),p=0;p<f.length;++p){for(var d=f[p],g=new Array(d.length),v=0;v<d.length;++v){for(var m=d[v],y=new Array(m.length),x=0;x<m.length;++x)y[x]=a[m[x]].slice();u&&y.reverse(),g[v]=y}h[p]=g}return h}return e.triangles||e.triangulate||e.triangle?{cells:s(a,c,{delaunay:!1,exterior:!1,interior:!0}),positions:a}:{edges:c,positions:a}}function w(t,e,r){try{return _(t,e,r,!0)}catch(t){}try{return _(t,e,r,!1)}catch(t){}return e.polygons||e.polyline||e.polygon?[]:e.triangles||e.triangulate||e.triangle?{cells:[],positions:[]}:{edges:[],positions:[]}}},{cdt2d:99,\\\"clean-pslg\\\":109,ndarray:445,\\\"planar-graph-to-polyline\\\":463,\\\"simplify-planar-graph\\\":511,\\\"surface-nets\\\":518}],539:[function(t,e,r){!function(){\\\"use strict\\\";if(\\\"undefined\\\"==typeof ses||!ses.ok||ses.ok()){\\\"undefined\\\"!=typeof ses&&(ses.weakMapPermitHostObjects=v);var t=!1;if(\\\"function\\\"==typeof WeakMap){var r=WeakMap;if(\\\"undefined\\\"!=typeof navigator&&/Firefox/.test(navigator.userAgent));else{var n=new r,i=Object.freeze({});if(n.set(i,1),1===n.get(i))return void(e.exports=WeakMap);t=!0}}Object.prototype.hasOwnProperty;var a=Object.getOwnPropertyNames,o=Object.defineProperty,s=Object.isExtensible,l=\\\"weakmap:\\\",c=l+\\\"ident:\\\"+Math.random()+\\\"___\\\";if(\\\"undefined\\\"!=typeof crypto&&\\\"function\\\"==typeof crypto.getRandomValues&&\\\"function\\\"==typeof ArrayBuffer&&\\\"function\\\"==typeof Uint8Array){var u=new ArrayBuffer(25),f=new Uint8Array(u);crypto.getRandomValues(f),c=l+\\\"rand:\\\"+Array.prototype.map.call(f,function(t){return(t%36).toString(36)}).join(\\\"\\\")+\\\"___\\\"}if(o(Object,\\\"getOwnPropertyNames\\\",{value:function(t){return a(t).filter(m)}}),\\\"getPropertyNames\\\"in Object){var h=Object.getPropertyNames;o(Object,\\\"getPropertyNames\\\",{value:function(t){return h(t).filter(m)}})}!function(){var t=Object.freeze;o(Object,\\\"freeze\\\",{value:function(e){return y(e),t(e)}});var e=Object.seal;o(Object,\\\"seal\\\",{value:function(t){return y(t),e(t)}});var r=Object.preventExtensions;o(Object,\\\"preventExtensions\\\",{value:function(t){return y(t),r(t)}})}();var p=!1,d=0,g=function(){this instanceof g||b();var t=[],e=[],r=d++;return Object.create(g.prototype,{get___:{value:x(function(n,i){var a,o=y(n);return o?r in o?o[r]:i:(a=t.indexOf(n))>=0?e[a]:i})},has___:{value:x(function(e){var n=y(e);return n?r in n:t.indexOf(e)>=0})},set___:{value:x(function(n,i){var a,o=y(n);return o?o[r]=i:(a=t.indexOf(n))>=0?e[a]=i:(a=t.length,e[a]=i,t[a]=n),this})},delete___:{value:x(function(n){var i,a,o=y(n);return o?r in o&&delete o[r]:!((i=t.indexOf(n))<0||(a=t.length-1,t[i]=void 0,e[i]=e[a],t[i]=t[a],t.length=a,e.length=a,0))})}})};g.prototype=Object.create(Object.prototype,{get:{value:function(t,e){return this.get___(t,e)},writable:!0,configurable:!0},has:{value:function(t){return this.has___(t)},writable:!0,configurable:!0},set:{value:function(t,e){return this.set___(t,e)},writable:!0,configurable:!0},delete:{value:function(t){return this.delete___(t)},writable:!0,configurable:!0}}),\\\"function\\\"==typeof r?function(){function n(){this instanceof g||b();var e,n=new r,i=void 0,a=!1;return e=t?function(t,e){return n.set(t,e),n.has(t)||(i||(i=new g),i.set(t,e)),this}:function(t,e){if(a)try{n.set(t,e)}catch(r){i||(i=new g),i.set___(t,e)}else n.set(t,e);return this},Object.create(g.prototype,{get___:{value:x(function(t,e){return i?n.has(t)?n.get(t):i.get___(t,e):n.get(t,e)})},has___:{value:x(function(t){return n.has(t)||!!i&&i.has___(t)})},set___:{value:x(e)},delete___:{value:x(function(t){var e=!!n.delete(t);return i&&i.delete___(t)||e})},permitHostObjects___:{value:x(function(t){if(t!==v)throw new Error(\\\"bogus call to permitHostObjects___\\\");a=!0})}})}t&&\\\"undefined\\\"!=typeof Proxy&&(Proxy=void 0),n.prototype=g.prototype,e.exports=n,Object.defineProperty(WeakMap.prototype,\\\"constructor\\\",{value:WeakMap,enumerable:!1,configurable:!0,writable:!0})}():(\\\"undefined\\\"!=typeof Proxy&&(Proxy=void 0),e.exports=g)}function v(t){t.permitHostObjects___&&t.permitHostObjects___(v)}function m(t){return!(t.substr(0,l.length)==l&&\\\"___\\\"===t.substr(t.length-3))}function y(t){if(t!==Object(t))throw new TypeError(\\\"Not an object: \\\"+t);var e=t[c];if(e&&e.key===t)return e;if(s(t)){e={key:t};try{return o(t,c,{value:e,writable:!1,enumerable:!1,configurable:!1}),e}catch(t){return}}}function x(t){return t.prototype=null,Object.freeze(t)}function b(){p||\\\"undefined\\\"==typeof console||(p=!0,console.warn(\\\"WeakMap should be invoked as new WeakMap(), not WeakMap(). This will be an error in the future.\\\"))}}()},{}],540:[function(t,e,r){var n=t(\\\"./hidden-store.js\\\");e.exports=function(){var t={};return function(e){if((\\\"object\\\"!=typeof e||null===e)&&\\\"function\\\"!=typeof e)throw new Error(\\\"Weakmap-shim: Key must be object\\\");var r=e.valueOf(t);return r&&r.identity===t?r:n(e,t)}}},{\\\"./hidden-store.js\\\":541}],541:[function(t,e,r){e.exports=function(t,e){var r={identity:e},n=t.valueOf;return Object.defineProperty(t,\\\"valueOf\\\",{value:function(t){return t!==e?n.apply(this,arguments):r},writable:!0}),r}},{}],542:[function(t,e,r){var n=t(\\\"./create-store.js\\\");e.exports=function(){var t=n();return{get:function(e,r){var n=t(e);return n.hasOwnProperty(\\\"value\\\")?n.value:r},set:function(e,r){return t(e).value=r,this},has:function(e){return\\\"value\\\"in t(e)},delete:function(e){return delete t(e).value}}}},{\\\"./create-store.js\\\":540}],543:[function(t,e,r){var n=t(\\\"get-canvas-context\\\");e.exports=function(t){return n(\\\"webgl\\\",t)}},{\\\"get-canvas-context\\\":231}],544:[function(t,e,r){var n=t(\\\"../main\\\"),i=t(\\\"object-assign\\\"),a=n.instance();function o(t){this.local=this.regionalOptions[t||\\\"\\\"]||this.regionalOptions[\\\"\\\"]}o.prototype=new n.baseCalendar,i(o.prototype,{name:\\\"Chinese\\\",jdEpoch:1721425.5,hasYearZero:!1,minMonth:0,firstMonth:0,minDay:1,regionalOptions:{\\\"\\\":{name:\\\"Chinese\\\",epochs:[\\\"BEC\\\",\\\"EC\\\"],monthNumbers:function(t,e){if(\\\"string\\\"==typeof t){var r=t.match(l);return r?r[0]:\\\"\\\"}var n=this._validateYear(t),i=t.month(),a=\\\"\\\"+this.toChineseMonth(n,i);return e&&a.length<2&&(a=\\\"0\\\"+a),this.isIntercalaryMonth(n,i)&&(a+=\\\"i\\\"),a},monthNames:function(t){if(\\\"string\\\"==typeof t){var e=t.match(c);return e?e[0]:\\\"\\\"}var r=this._validateYear(t),n=t.month(),i=[\\\"\\\\u4e00\\\\u6708\\\",\\\"\\\\u4e8c\\\\u6708\\\",\\\"\\\\u4e09\\\\u6708\\\",\\\"\\\\u56db\\\\u6708\\\",\\\"\\\\u4e94\\\\u6708\\\",\\\"\\\\u516d\\\\u6708\\\",\\\"\\\\u4e03\\\\u6708\\\",\\\"\\\\u516b\\\\u6708\\\",\\\"\\\\u4e5d\\\\u6708\\\",\\\"\\\\u5341\\\\u6708\\\",\\\"\\\\u5341\\\\u4e00\\\\u6708\\\",\\\"\\\\u5341\\\\u4e8c\\\\u6708\\\"][this.toChineseMonth(r,n)-1];return this.isIntercalaryMonth(r,n)&&(i=\\\"\\\\u95f0\\\"+i),i},monthNamesShort:function(t){if(\\\"string\\\"==typeof t){var e=t.match(u);return e?e[0]:\\\"\\\"}var r=this._validateYear(t),n=t.month(),i=[\\\"\\\\u4e00\\\",\\\"\\\\u4e8c\\\",\\\"\\\\u4e09\\\",\\\"\\\\u56db\\\",\\\"\\\\u4e94\\\",\\\"\\\\u516d\\\",\\\"\\\\u4e03\\\",\\\"\\\\u516b\\\",\\\"\\\\u4e5d\\\",\\\"\\\\u5341\\\",\\\"\\\\u5341\\\\u4e00\\\",\\\"\\\\u5341\\\\u4e8c\\\"][this.toChineseMonth(r,n)-1];return this.isIntercalaryMonth(r,n)&&(i=\\\"\\\\u95f0\\\"+i),i},parseMonth:function(t,e){t=this._validateYear(t);var r,n=parseInt(e);if(isNaN(n))\\\"\\\\u95f0\\\"===e[0]&&(r=!0,e=e.substring(1)),\\\"\\\\u6708\\\"===e[e.length-1]&&(e=e.substring(0,e.length-1)),n=1+[\\\"\\\\u4e00\\\",\\\"\\\\u4e8c\\\",\\\"\\\\u4e09\\\",\\\"\\\\u56db\\\",\\\"\\\\u4e94\\\",\\\"\\\\u516d\\\",\\\"\\\\u4e03\\\",\\\"\\\\u516b\\\",\\\"\\\\u4e5d\\\",\\\"\\\\u5341\\\",\\\"\\\\u5341\\\\u4e00\\\",\\\"\\\\u5341\\\\u4e8c\\\"].indexOf(e);else{var i=e[e.length-1];r=\\\"i\\\"===i||\\\"I\\\"===i}return this.toMonthIndex(t,n,r)},dayNames:[\\\"Sunday\\\",\\\"Monday\\\",\\\"Tuesday\\\",\\\"Wednesday\\\",\\\"Thursday\\\",\\\"Friday\\\",\\\"Saturday\\\"],dayNamesShort:[\\\"Sun\\\",\\\"Mon\\\",\\\"Tue\\\",\\\"Wed\\\",\\\"Thu\\\",\\\"Fri\\\",\\\"Sat\\\"],dayNamesMin:[\\\"Su\\\",\\\"Mo\\\",\\\"Tu\\\",\\\"We\\\",\\\"Th\\\",\\\"Fr\\\",\\\"Sa\\\"],digits:null,dateFormat:\\\"yyyy/mm/dd\\\",firstDay:1,isRTL:!1}},_validateYear:function(t,e){if(t.year&&(t=t.year()),\\\"number\\\"!=typeof t||t<1888||t>2111)throw e.replace(/\\\\{0\\\\}/,this.local.name);return t},toMonthIndex:function(t,e,r){var i=this.intercalaryMonth(t);if(r&&e!==i||e<1||e>12)throw n.local.invalidMonth.replace(/\\\\{0\\\\}/,this.local.name);return i?!r&&e<=i?e-1:e:e-1},toChineseMonth:function(t,e){t.year&&(e=(t=t.year()).month());var r=this.intercalaryMonth(t);if(e<0||e>(r?12:11))throw n.local.invalidMonth.replace(/\\\\{0\\\\}/,this.local.name);return r?e<r?e+1:e:e+1},intercalaryMonth:function(t){return t=this._validateYear(t),f[t-f[0]]>>13},isIntercalaryMonth:function(t,e){t.year&&(e=(t=t.year()).month());var r=this.intercalaryMonth(t);return!!r&&r===e},leapYear:function(t){return 0!==this.intercalaryMonth(t)},weekOfYear:function(t,e,r){var i,o=this._validateYear(t,n.local.invalidyear),s=h[o-h[0]],l=s>>9&4095,c=s>>5&15,u=31&s;(i=a.newDate(l,c,u)).add(4-(i.dayOfWeek()||7),\\\"d\\\");var f=this.toJD(t,e,r)-i.toJD();return 1+Math.floor(f/7)},monthsInYear:function(t){return this.leapYear(t)?13:12},daysInMonth:function(t,e){t.year&&(e=t.month(),t=t.year()),t=this._validateYear(t);var r=f[t-f[0]];if(e>(r>>13?12:11))throw n.local.invalidMonth.replace(/\\\\{0\\\\}/,this.local.name);return r&1<<12-e?30:29},weekDay:function(t,e,r){return(this.dayOfWeek(t,e,r)||7)<6},toJD:function(t,e,r){var i=this._validate(t,s,r,n.local.invalidDate);t=this._validateYear(i.year()),e=i.month(),r=i.day();var o=this.isIntercalaryMonth(t,e),s=this.toChineseMonth(t,e),l=function(t,e,r,n,i){var a,o,s;if(\\\"object\\\"==typeof t)o=t,a=e||{};else{var l=\\\"number\\\"==typeof t&&t>=1888&&t<=2111;if(!l)throw new Error(\\\"Lunar year outside range 1888-2111\\\");var c=\\\"number\\\"==typeof e&&e>=1&&e<=12;if(!c)throw new Error(\\\"Lunar month outside range 1 - 12\\\");var u,p=\\\"number\\\"==typeof r&&r>=1&&r<=30;if(!p)throw new Error(\\\"Lunar day outside range 1 - 30\\\");\\\"object\\\"==typeof n?(u=!1,a=n):(u=!!n,a=i||{}),o={year:t,month:e,day:r,isIntercalary:u}}s=o.day-1;var d,g=f[o.year-f[0]],v=g>>13;d=v?o.month>v?o.month:o.isIntercalary?o.month:o.month-1:o.month-1;for(var m=0;m<d;m++){var y=g&1<<12-m?30:29;s+=y}var x=h[o.year-h[0]],b=new Date(x>>9&4095,(x>>5&15)-1,(31&x)+s);return a.year=b.getFullYear(),a.month=1+b.getMonth(),a.day=b.getDate(),a}(t,s,r,o);return a.toJD(l.year,l.month,l.day)},fromJD:function(t){var e=a.fromJD(t),r=function(t,e,r,n){var i,a;if(\\\"object\\\"==typeof t)i=t,a=e||{};else{var o=\\\"number\\\"==typeof t&&t>=1888&&t<=2111;if(!o)throw new Error(\\\"Solar year outside range 1888-2111\\\");var s=\\\"number\\\"==typeof e&&e>=1&&e<=12;if(!s)throw new Error(\\\"Solar month outside range 1 - 12\\\");var l=\\\"number\\\"==typeof r&&r>=1&&r<=31;if(!l)throw new Error(\\\"Solar day outside range 1 - 31\\\");i={year:t,month:e,day:r},a=n||{}}var c=h[i.year-h[0]],u=i.year<<9|i.month<<5|i.day;a.year=u>=c?i.year:i.year-1,c=h[a.year-h[0]];var p,d=new Date(c>>9&4095,(c>>5&15)-1,31&c),g=new Date(i.year,i.month-1,i.day);p=Math.round((g-d)/864e5);var v,m=f[a.year-f[0]];for(v=0;v<13;v++){var y=m&1<<12-v?30:29;if(p<y)break;p-=y}var x=m>>13;!x||v<x?(a.isIntercalary=!1,a.month=1+v):v===x?(a.isIntercalary=!0,a.month=v):(a.isIntercalary=!1,a.month=v);return a.day=1+p,a}(e.year(),e.month(),e.day()),n=this.toMonthIndex(r.year,r.month,r.isIntercalary);return this.newDate(r.year,n,r.day)},fromString:function(t){var e=t.match(s),r=this._validateYear(+e[1]),n=+e[2],i=!!e[3],a=this.toMonthIndex(r,n,i),o=+e[4];return this.newDate(r,a,o)},add:function(t,e,r){var n=t.year(),i=t.month(),a=this.isIntercalaryMonth(n,i),s=this.toChineseMonth(n,i),l=Object.getPrototypeOf(o.prototype).add.call(this,t,e,r);if(\\\"y\\\"===r){var c=l.year(),u=l.month(),f=this.isIntercalaryMonth(c,s),h=a&&f?this.toMonthIndex(c,s,!0):this.toMonthIndex(c,s,!1);h!==u&&l.month(h)}return l}});var s=/^\\\\s*(-?\\\\d\\\\d\\\\d\\\\d|\\\\d\\\\d)[-\\\\/](\\\\d?\\\\d)([iI]?)[-\\\\/](\\\\d?\\\\d)/m,l=/^\\\\d?\\\\d[iI]?/m,c=/^\\\\u95f0?\\\\u5341?[\\\\u4e00\\\\u4e8c\\\\u4e09\\\\u56db\\\\u4e94\\\\u516d\\\\u4e03\\\\u516b\\\\u4e5d]?\\\\u6708/m,u=/^\\\\u95f0?\\\\u5341?[\\\\u4e00\\\\u4e8c\\\\u4e09\\\\u56db\\\\u4e94\\\\u516d\\\\u4e03\\\\u516b\\\\u4e5d]?/m;n.calendars.chinese=o;var f=[1887,5780,5802,19157,2742,50359,1198,2646,46378,7466,3412,30122,5482,67949,2396,5294,43597,6732,6954,36181,2772,4954,18781,2396,54427,5274,6730,47781,5800,6868,21210,4790,59703,2350,5270,46667,3402,3496,38325,1388,4782,18735,2350,52374,6804,7498,44457,2906,1388,29294,4700,63789,6442,6804,56138,5802,2772,38235,1210,4698,22827,5418,63125,3476,5802,43701,2484,5302,27223,2646,70954,7466,3412,54698,5482,2412,38062,5294,2636,32038,6954,60245,2772,4826,43357,2394,5274,39501,6730,72357,5800,5844,53978,4790,2358,38039,5270,87627,3402,3496,54708,5484,4782,43311,2350,3222,27978,7498,68965,2904,5484,45677,4700,6444,39573,6804,6986,19285,2772,62811,1210,4698,47403,5418,5780,38570,5546,76469,2420,5302,51799,2646,5414,36501,3412,5546,18869,2412,54446,5276,6732,48422,6822,2900,28010,4826,92509,2394,5274,55883,6730,6820,47956,5812,2778,18779,2358,62615,5270,5450,46757,3492,5556,27318,4718,67887,2350,3222,52554,7498,3428,38252,5468,4700,31022,6444,64149,6804,6986,43861,2772,5338,35421,2650,70955,5418,5780,54954,5546,2740,38074,5302,2646,29991,3366,61011,3412,5546,43445,2412,5294,35406,6732,72998,6820,6996,52586,2778,2396,38045,5274,6698,23333,6820,64338,5812,2746,43355,2358,5270,39499,5450,79525,3492,5548],h=[1887,966732,967231,967733,968265,968766,969297,969798,970298,970829,971330,971830,972362,972863,973395,973896,974397,974928,975428,975929,976461,976962,977462,977994,978494,979026,979526,980026,980558,981059,981559,982091,982593,983124,983624,984124,984656,985157,985656,986189,986690,987191,987722,988222,988753,989254,989754,990286,990788,991288,991819,992319,992851,993352,993851,994383,994885,995385,995917,996418,996918,997450,997949,998481,998982,999483,1000014,1000515,1001016,1001548,1002047,1002578,1003080,1003580,1004111,1004613,1005113,1005645,1006146,1006645,1007177,1007678,1008209,1008710,1009211,1009743,1010243,1010743,1011275,1011775,1012306,1012807,1013308,1013840,1014341,1014841,1015373,1015874,1016404,1016905,1017405,1017937,1018438,1018939,1019471,1019972,1020471,1021002,1021503,1022035,1022535,1023036,1023568,1024069,1024568,1025100,1025601,1026102,1026633,1027133,1027666,1028167,1028666,1029198,1029699,1030199,1030730,1031231,1031763,1032264,1032764,1033296,1033797,1034297,1034828,1035329,1035830,1036362,1036861,1037393,1037894,1038394,1038925,1039427,1039927,1040459,1040959,1041491,1041992,1042492,1043023,1043524,1044024,1044556,1045057,1045558,1046090,1046590,1047121,1047622,1048122,1048654,1049154,1049655,1050187,1050689,1051219,1051720,1052220,1052751,1053252,1053752,1054284,1054786,1055285,1055817,1056317,1056849,1057349,1057850,1058382,1058883,1059383,1059915,1060415,1060947,1061447,1061947,1062479,1062981,1063480,1064012,1064514,1065014,1065545,1066045,1066577,1067078,1067578,1068110,1068611,1069112,1069642,1070142,1070674,1071175,1071675,1072207,1072709,1073209,1073740,1074241,1074741,1075273,1075773,1076305,1076807,1077308,1077839,1078340,1078840,1079372,1079871,1080403,1080904]},{\\\"../main\\\":558,\\\"object-assign\\\":449}],545:[function(t,e,r){var n=t(\\\"../main\\\"),i=t(\\\"object-assign\\\");function a(t){this.local=this.regionalOptions[t||\\\"\\\"]||this.regionalOptions[\\\"\\\"]}a.prototype=new n.baseCalendar,i(a.prototype,{name:\\\"Coptic\\\",jdEpoch:1825029.5,daysPerMonth:[30,30,30,30,30,30,30,30,30,30,30,30,5],hasYearZero:!1,minMonth:1,firstMonth:1,minDay:1,regionalOptions:{\\\"\\\":{name:\\\"Coptic\\\",epochs:[\\\"BAM\\\",\\\"AM\\\"],monthNames:[\\\"Thout\\\",\\\"Paopi\\\",\\\"Hathor\\\",\\\"Koiak\\\",\\\"Tobi\\\",\\\"Meshir\\\",\\\"Paremhat\\\",\\\"Paremoude\\\",\\\"Pashons\\\",\\\"Paoni\\\",\\\"Epip\\\",\\\"Mesori\\\",\\\"Pi Kogi Enavot\\\"],monthNamesShort:[\\\"Tho\\\",\\\"Pao\\\",\\\"Hath\\\",\\\"Koi\\\",\\\"Tob\\\",\\\"Mesh\\\",\\\"Pat\\\",\\\"Pad\\\",\\\"Pash\\\",\\\"Pao\\\",\\\"Epi\\\",\\\"Meso\\\",\\\"PiK\\\"],dayNames:[\\\"Tkyriaka\\\",\\\"Pesnau\\\",\\\"Pshoment\\\",\\\"Peftoou\\\",\\\"Ptiou\\\",\\\"Psoou\\\",\\\"Psabbaton\\\"],dayNamesShort:[\\\"Tky\\\",\\\"Pes\\\",\\\"Psh\\\",\\\"Pef\\\",\\\"Pti\\\",\\\"Pso\\\",\\\"Psa\\\"],dayNamesMin:[\\\"Tk\\\",\\\"Pes\\\",\\\"Psh\\\",\\\"Pef\\\",\\\"Pt\\\",\\\"Pso\\\",\\\"Psa\\\"],digits:null,dateFormat:\\\"dd/mm/yyyy\\\",firstDay:0,isRTL:!1}},leapYear:function(t){var e=this._validate(t,this.minMonth,this.minDay,n.local.invalidYear);return(t=e.year()+(e.year()<0?1:0))%4==3||t%4==-1},monthsInYear:function(t){return this._validate(t,this.minMonth,this.minDay,n.local.invalidYear||n.regionalOptions[\\\"\\\"].invalidYear),13},weekOfYear:function(t,e,r){var n=this.newDate(t,e,r);return n.add(-n.dayOfWeek(),\\\"d\\\"),Math.floor((n.dayOfYear()-1)/7)+1},daysInMonth:function(t,e){var r=this._validate(t,e,this.minDay,n.local.invalidMonth);return this.daysPerMonth[r.month()-1]+(13===r.month()&&this.leapYear(r.year())?1:0)},weekDay:function(t,e,r){return(this.dayOfWeek(t,e,r)||7)<6},toJD:function(t,e,r){var i=this._validate(t,e,r,n.local.invalidDate);return(t=i.year())<0&&t++,i.day()+30*(i.month()-1)+365*(t-1)+Math.floor(t/4)+this.jdEpoch-1},fromJD:function(t){var e=Math.floor(t)+.5-this.jdEpoch,r=Math.floor((e-Math.floor((e+366)/1461))/365)+1;r<=0&&r--,e=Math.floor(t)+.5-this.newDate(r,1,1).toJD();var n=Math.floor(e/30)+1,i=e-30*(n-1)+1;return this.newDate(r,n,i)}}),n.calendars.coptic=a},{\\\"../main\\\":558,\\\"object-assign\\\":449}],546:[function(t,e,r){var n=t(\\\"../main\\\"),i=t(\\\"object-assign\\\");function a(t){this.local=this.regionalOptions[t||\\\"\\\"]||this.regionalOptions[\\\"\\\"]}a.prototype=new n.baseCalendar,i(a.prototype,{name:\\\"Discworld\\\",jdEpoch:1721425.5,daysPerMonth:[16,32,32,32,32,32,32,32,32,32,32,32,32],hasYearZero:!1,minMonth:1,firstMonth:1,minDay:1,regionalOptions:{\\\"\\\":{name:\\\"Discworld\\\",epochs:[\\\"BUC\\\",\\\"UC\\\"],monthNames:[\\\"Ick\\\",\\\"Offle\\\",\\\"February\\\",\\\"March\\\",\\\"April\\\",\\\"May\\\",\\\"June\\\",\\\"Grune\\\",\\\"August\\\",\\\"Spune\\\",\\\"Sektober\\\",\\\"Ember\\\",\\\"December\\\"],monthNamesShort:[\\\"Ick\\\",\\\"Off\\\",\\\"Feb\\\",\\\"Mar\\\",\\\"Apr\\\",\\\"May\\\",\\\"Jun\\\",\\\"Gru\\\",\\\"Aug\\\",\\\"Spu\\\",\\\"Sek\\\",\\\"Emb\\\",\\\"Dec\\\"],dayNames:[\\\"Sunday\\\",\\\"Octeday\\\",\\\"Monday\\\",\\\"Tuesday\\\",\\\"Wednesday\\\",\\\"Thursday\\\",\\\"Friday\\\",\\\"Saturday\\\"],dayNamesShort:[\\\"Sun\\\",\\\"Oct\\\",\\\"Mon\\\",\\\"Tue\\\",\\\"Wed\\\",\\\"Thu\\\",\\\"Fri\\\",\\\"Sat\\\"],dayNamesMin:[\\\"Su\\\",\\\"Oc\\\",\\\"Mo\\\",\\\"Tu\\\",\\\"We\\\",\\\"Th\\\",\\\"Fr\\\",\\\"Sa\\\"],digits:null,dateFormat:\\\"yyyy/mm/dd\\\",firstDay:2,isRTL:!1}},leapYear:function(t){return this._validate(t,this.minMonth,this.minDay,n.local.invalidYear),!1},monthsInYear:function(t){return this._validate(t,this.minMonth,this.minDay,n.local.invalidYear),13},daysInYear:function(t){return this._validate(t,this.minMonth,this.minDay,n.local.invalidYear),400},weekOfYear:function(t,e,r){var n=this.newDate(t,e,r);return n.add(-n.dayOfWeek(),\\\"d\\\"),Math.floor((n.dayOfYear()-1)/8)+1},daysInMonth:function(t,e){var r=this._validate(t,e,this.minDay,n.local.invalidMonth);return this.daysPerMonth[r.month()-1]},daysInWeek:function(){return 8},dayOfWeek:function(t,e,r){return(this._validate(t,e,r,n.local.invalidDate).day()+1)%8},weekDay:function(t,e,r){var n=this.dayOfWeek(t,e,r);return n>=2&&n<=6},extraInfo:function(t,e,r){var i=this._validate(t,e,r,n.local.invalidDate);return{century:o[Math.floor((i.year()-1)/100)+1]||\\\"\\\"}},toJD:function(t,e,r){var i=this._validate(t,e,r,n.local.invalidDate);return t=i.year()+(i.year()<0?1:0),e=i.month(),(r=i.day())+(e>1?16:0)+(e>2?32*(e-2):0)+400*(t-1)+this.jdEpoch-1},fromJD:function(t){t=Math.floor(t+.5)-Math.floor(this.jdEpoch)-1;var e=Math.floor(t/400)+1;t-=400*(e-1),t+=t>15?16:0;var r=Math.floor(t/32)+1,n=t-32*(r-1)+1;return this.newDate(e<=0?e-1:e,r,n)}});var o={20:\\\"Fruitbat\\\",21:\\\"Anchovy\\\"};n.calendars.discworld=a},{\\\"../main\\\":558,\\\"object-assign\\\":449}],547:[function(t,e,r){var n=t(\\\"../main\\\"),i=t(\\\"object-assign\\\");function a(t){this.local=this.regionalOptions[t||\\\"\\\"]||this.regionalOptions[\\\"\\\"]}a.prototype=new n.baseCalendar,i(a.prototype,{name:\\\"Ethiopian\\\",jdEpoch:1724220.5,daysPerMonth:[30,30,30,30,30,30,30,30,30,30,30,30,5],hasYearZero:!1,minMonth:1,firstMonth:1,minDay:1,regionalOptions:{\\\"\\\":{name:\\\"Ethiopian\\\",epochs:[\\\"BEE\\\",\\\"EE\\\"],monthNames:[\\\"Meskerem\\\",\\\"Tikemet\\\",\\\"Hidar\\\",\\\"Tahesas\\\",\\\"Tir\\\",\\\"Yekatit\\\",\\\"Megabit\\\",\\\"Miazia\\\",\\\"Genbot\\\",\\\"Sene\\\",\\\"Hamle\\\",\\\"Nehase\\\",\\\"Pagume\\\"],monthNamesShort:[\\\"Mes\\\",\\\"Tik\\\",\\\"Hid\\\",\\\"Tah\\\",\\\"Tir\\\",\\\"Yek\\\",\\\"Meg\\\",\\\"Mia\\\",\\\"Gen\\\",\\\"Sen\\\",\\\"Ham\\\",\\\"Neh\\\",\\\"Pag\\\"],dayNames:[\\\"Ehud\\\",\\\"Segno\\\",\\\"Maksegno\\\",\\\"Irob\\\",\\\"Hamus\\\",\\\"Arb\\\",\\\"Kidame\\\"],dayNamesShort:[\\\"Ehu\\\",\\\"Seg\\\",\\\"Mak\\\",\\\"Iro\\\",\\\"Ham\\\",\\\"Arb\\\",\\\"Kid\\\"],dayNamesMin:[\\\"Eh\\\",\\\"Se\\\",\\\"Ma\\\",\\\"Ir\\\",\\\"Ha\\\",\\\"Ar\\\",\\\"Ki\\\"],digits:null,dateFormat:\\\"dd/mm/yyyy\\\",firstDay:0,isRTL:!1}},leapYear:function(t){var e=this._validate(t,this.minMonth,this.minDay,n.local.invalidYear);return(t=e.year()+(e.year()<0?1:0))%4==3||t%4==-1},monthsInYear:function(t){return this._validate(t,this.minMonth,this.minDay,n.local.invalidYear||n.regionalOptions[\\\"\\\"].invalidYear),13},weekOfYear:function(t,e,r){var n=this.newDate(t,e,r);return n.add(-n.dayOfWeek(),\\\"d\\\"),Math.floor((n.dayOfYear()-1)/7)+1},daysInMonth:function(t,e){var r=this._validate(t,e,this.minDay,n.local.invalidMonth);return this.daysPerMonth[r.month()-1]+(13===r.month()&&this.leapYear(r.year())?1:0)},weekDay:function(t,e,r){return(this.dayOfWeek(t,e,r)||7)<6},toJD:function(t,e,r){var i=this._validate(t,e,r,n.local.invalidDate);return(t=i.year())<0&&t++,i.day()+30*(i.month()-1)+365*(t-1)+Math.floor(t/4)+this.jdEpoch-1},fromJD:function(t){var e=Math.floor(t)+.5-this.jdEpoch,r=Math.floor((e-Math.floor((e+366)/1461))/365)+1;r<=0&&r--,e=Math.floor(t)+.5-this.newDate(r,1,1).toJD();var n=Math.floor(e/30)+1,i=e-30*(n-1)+1;return this.newDate(r,n,i)}}),n.calendars.ethiopian=a},{\\\"../main\\\":558,\\\"object-assign\\\":449}],548:[function(t,e,r){var n=t(\\\"../main\\\"),i=t(\\\"object-assign\\\");function a(t){this.local=this.regionalOptions[t||\\\"\\\"]||this.regionalOptions[\\\"\\\"]}function o(t,e){return t-e*Math.floor(t/e)}a.prototype=new n.baseCalendar,i(a.prototype,{name:\\\"Hebrew\\\",jdEpoch:347995.5,daysPerMonth:[30,29,30,29,30,29,30,29,30,29,30,29,29],hasYearZero:!1,minMonth:1,firstMonth:7,minDay:1,regionalOptions:{\\\"\\\":{name:\\\"Hebrew\\\",epochs:[\\\"BAM\\\",\\\"AM\\\"],monthNames:[\\\"Nisan\\\",\\\"Iyar\\\",\\\"Sivan\\\",\\\"Tammuz\\\",\\\"Av\\\",\\\"Elul\\\",\\\"Tishrei\\\",\\\"Cheshvan\\\",\\\"Kislev\\\",\\\"Tevet\\\",\\\"Shevat\\\",\\\"Adar\\\",\\\"Adar II\\\"],monthNamesShort:[\\\"Nis\\\",\\\"Iya\\\",\\\"Siv\\\",\\\"Tam\\\",\\\"Av\\\",\\\"Elu\\\",\\\"Tis\\\",\\\"Che\\\",\\\"Kis\\\",\\\"Tev\\\",\\\"She\\\",\\\"Ada\\\",\\\"Ad2\\\"],dayNames:[\\\"Yom Rishon\\\",\\\"Yom Sheni\\\",\\\"Yom Shlishi\\\",\\\"Yom Revi'i\\\",\\\"Yom Chamishi\\\",\\\"Yom Shishi\\\",\\\"Yom Shabbat\\\"],dayNamesShort:[\\\"Ris\\\",\\\"She\\\",\\\"Shl\\\",\\\"Rev\\\",\\\"Cha\\\",\\\"Shi\\\",\\\"Sha\\\"],dayNamesMin:[\\\"Ri\\\",\\\"She\\\",\\\"Shl\\\",\\\"Re\\\",\\\"Ch\\\",\\\"Shi\\\",\\\"Sha\\\"],digits:null,dateFormat:\\\"dd/mm/yyyy\\\",firstDay:0,isRTL:!1}},leapYear:function(t){var e=this._validate(t,this.minMonth,this.minDay,n.local.invalidYear);return this._leapYear(e.year())},_leapYear:function(t){return o(7*(t=t<0?t+1:t)+1,19)<7},monthsInYear:function(t){return this._validate(t,this.minMonth,this.minDay,n.local.invalidYear),this._leapYear(t.year?t.year():t)?13:12},weekOfYear:function(t,e,r){var n=this.newDate(t,e,r);return n.add(-n.dayOfWeek(),\\\"d\\\"),Math.floor((n.dayOfYear()-1)/7)+1},daysInYear:function(t){return t=this._validate(t,this.minMonth,this.minDay,n.local.invalidYear).year(),this.toJD(-1===t?1:t+1,7,1)-this.toJD(t,7,1)},daysInMonth:function(t,e){return t.year&&(e=t.month(),t=t.year()),this._validate(t,e,this.minDay,n.local.invalidMonth),12===e&&this.leapYear(t)?30:8===e&&5===o(this.daysInYear(t),10)?30:9===e&&3===o(this.daysInYear(t),10)?29:this.daysPerMonth[e-1]},weekDay:function(t,e,r){return 6!==this.dayOfWeek(t,e,r)},extraInfo:function(t,e,r){var i=this._validate(t,e,r,n.local.invalidDate);return{yearType:(this.leapYear(i)?\\\"embolismic\\\":\\\"common\\\")+\\\" \\\"+[\\\"deficient\\\",\\\"regular\\\",\\\"complete\\\"][this.daysInYear(i)%10-3]}},toJD:function(t,e,r){var i=this._validate(t,e,r,n.local.invalidDate);t=i.year(),e=i.month(),r=i.day();var a=t<=0?t+1:t,o=this.jdEpoch+this._delay1(a)+this._delay2(a)+r+1;if(e<7){for(var s=7;s<=this.monthsInYear(t);s++)o+=this.daysInMonth(t,s);for(s=1;s<e;s++)o+=this.daysInMonth(t,s)}else for(s=7;s<e;s++)o+=this.daysInMonth(t,s);return o},_delay1:function(t){var e=Math.floor((235*t-234)/19),r=12084+13753*e,n=29*e+Math.floor(r/25920);return o(3*(n+1),7)<3&&n++,n},_delay2:function(t){var e=this._delay1(t-1),r=this._delay1(t);return this._delay1(t+1)-r==356?2:r-e==382?1:0},fromJD:function(t){t=Math.floor(t)+.5;for(var e=Math.floor(98496*(t-this.jdEpoch)/35975351)-1;t>=this.toJD(-1===e?1:e+1,7,1);)e++;for(var r=t<this.toJD(e,1,1)?7:1;t>this.toJD(e,r,this.daysInMonth(e,r));)r++;var n=t-this.toJD(e,r,1)+1;return this.newDate(e,r,n)}}),n.calendars.hebrew=a},{\\\"../main\\\":558,\\\"object-assign\\\":449}],549:[function(t,e,r){var n=t(\\\"../main\\\"),i=t(\\\"object-assign\\\");function a(t){this.local=this.regionalOptions[t||\\\"\\\"]||this.regionalOptions[\\\"\\\"]}a.prototype=new n.baseCalendar,i(a.prototype,{name:\\\"Islamic\\\",jdEpoch:1948439.5,daysPerMonth:[30,29,30,29,30,29,30,29,30,29,30,29],hasYearZero:!1,minMonth:1,firstMonth:1,minDay:1,regionalOptions:{\\\"\\\":{name:\\\"Islamic\\\",epochs:[\\\"BH\\\",\\\"AH\\\"],monthNames:[\\\"Muharram\\\",\\\"Safar\\\",\\\"Rabi' al-awwal\\\",\\\"Rabi' al-thani\\\",\\\"Jumada al-awwal\\\",\\\"Jumada al-thani\\\",\\\"Rajab\\\",\\\"Sha'aban\\\",\\\"Ramadan\\\",\\\"Shawwal\\\",\\\"Dhu al-Qi'dah\\\",\\\"Dhu al-Hijjah\\\"],monthNamesShort:[\\\"Muh\\\",\\\"Saf\\\",\\\"Rab1\\\",\\\"Rab2\\\",\\\"Jum1\\\",\\\"Jum2\\\",\\\"Raj\\\",\\\"Sha'\\\",\\\"Ram\\\",\\\"Shaw\\\",\\\"DhuQ\\\",\\\"DhuH\\\"],dayNames:[\\\"Yawm al-ahad\\\",\\\"Yawm al-ithnayn\\\",\\\"Yawm ath-thulaathaa'\\\",\\\"Yawm al-arbi'aa'\\\",\\\"Yawm al-kham\\\\u012bs\\\",\\\"Yawm al-jum'a\\\",\\\"Yawm as-sabt\\\"],dayNamesShort:[\\\"Aha\\\",\\\"Ith\\\",\\\"Thu\\\",\\\"Arb\\\",\\\"Kha\\\",\\\"Jum\\\",\\\"Sab\\\"],dayNamesMin:[\\\"Ah\\\",\\\"It\\\",\\\"Th\\\",\\\"Ar\\\",\\\"Kh\\\",\\\"Ju\\\",\\\"Sa\\\"],digits:null,dateFormat:\\\"yyyy/mm/dd\\\",firstDay:6,isRTL:!1}},leapYear:function(t){return(11*this._validate(t,this.minMonth,this.minDay,n.local.invalidYear).year()+14)%30<11},weekOfYear:function(t,e,r){var n=this.newDate(t,e,r);return n.add(-n.dayOfWeek(),\\\"d\\\"),Math.floor((n.dayOfYear()-1)/7)+1},daysInYear:function(t){return this.leapYear(t)?355:354},daysInMonth:function(t,e){var r=this._validate(t,e,this.minDay,n.local.invalidMonth);return this.daysPerMonth[r.month()-1]+(12===r.month()&&this.leapYear(r.year())?1:0)},weekDay:function(t,e,r){return 5!==this.dayOfWeek(t,e,r)},toJD:function(t,e,r){var i=this._validate(t,e,r,n.local.invalidDate);return t=i.year(),e=i.month(),t=t<=0?t+1:t,(r=i.day())+Math.ceil(29.5*(e-1))+354*(t-1)+Math.floor((3+11*t)/30)+this.jdEpoch-1},fromJD:function(t){t=Math.floor(t)+.5;var e=Math.floor((30*(t-this.jdEpoch)+10646)/10631);e=e<=0?e-1:e;var r=Math.min(12,Math.ceil((t-29-this.toJD(e,1,1))/29.5)+1),n=t-this.toJD(e,r,1)+1;return this.newDate(e,r,n)}}),n.calendars.islamic=a},{\\\"../main\\\":558,\\\"object-assign\\\":449}],550:[function(t,e,r){var n=t(\\\"../main\\\"),i=t(\\\"object-assign\\\");function a(t){this.local=this.regionalOptions[t||\\\"\\\"]||this.regionalOptions[\\\"\\\"]}a.prototype=new n.baseCalendar,i(a.prototype,{name:\\\"Julian\\\",jdEpoch:1721423.5,daysPerMonth:[31,28,31,30,31,30,31,31,30,31,30,31],hasYearZero:!1,minMonth:1,firstMonth:1,minDay:1,regionalOptions:{\\\"\\\":{name:\\\"Julian\\\",epochs:[\\\"BC\\\",\\\"AD\\\"],monthNames:[\\\"January\\\",\\\"February\\\",\\\"March\\\",\\\"April\\\",\\\"May\\\",\\\"June\\\",\\\"July\\\",\\\"August\\\",\\\"September\\\",\\\"October\\\",\\\"November\\\",\\\"December\\\"],monthNamesShort:[\\\"Jan\\\",\\\"Feb\\\",\\\"Mar\\\",\\\"Apr\\\",\\\"May\\\",\\\"Jun\\\",\\\"Jul\\\",\\\"Aug\\\",\\\"Sep\\\",\\\"Oct\\\",\\\"Nov\\\",\\\"Dec\\\"],dayNames:[\\\"Sunday\\\",\\\"Monday\\\",\\\"Tuesday\\\",\\\"Wednesday\\\",\\\"Thursday\\\",\\\"Friday\\\",\\\"Saturday\\\"],dayNamesShort:[\\\"Sun\\\",\\\"Mon\\\",\\\"Tue\\\",\\\"Wed\\\",\\\"Thu\\\",\\\"Fri\\\",\\\"Sat\\\"],dayNamesMin:[\\\"Su\\\",\\\"Mo\\\",\\\"Tu\\\",\\\"We\\\",\\\"Th\\\",\\\"Fr\\\",\\\"Sa\\\"],digits:null,dateFormat:\\\"mm/dd/yyyy\\\",firstDay:0,isRTL:!1}},leapYear:function(t){var e=this._validate(t,this.minMonth,this.minDay,n.local.invalidYear);return(t=e.year()<0?e.year()+1:e.year())%4==0},weekOfYear:function(t,e,r){var n=this.newDate(t,e,r);return n.add(4-(n.dayOfWeek()||7),\\\"d\\\"),Math.floor((n.dayOfYear()-1)/7)+1},daysInMonth:function(t,e){var r=this._validate(t,e,this.minDay,n.local.invalidMonth);return this.daysPerMonth[r.month()-1]+(2===r.month()&&this.leapYear(r.year())?1:0)},weekDay:function(t,e,r){return(this.dayOfWeek(t,e,r)||7)<6},toJD:function(t,e,r){var i=this._validate(t,e,r,n.local.invalidDate);return t=i.year(),e=i.month(),r=i.day(),t<0&&t++,e<=2&&(t--,e+=12),Math.floor(365.25*(t+4716))+Math.floor(30.6001*(e+1))+r-1524.5},fromJD:function(t){var e=Math.floor(t+.5)+1524,r=Math.floor((e-122.1)/365.25),n=Math.floor(365.25*r),i=Math.floor((e-n)/30.6001),a=i-Math.floor(i<14?1:13),o=r-Math.floor(a>2?4716:4715),s=e-n-Math.floor(30.6001*i);return o<=0&&o--,this.newDate(o,a,s)}}),n.calendars.julian=a},{\\\"../main\\\":558,\\\"object-assign\\\":449}],551:[function(t,e,r){var n=t(\\\"../main\\\"),i=t(\\\"object-assign\\\");function a(t){this.local=this.regionalOptions[t||\\\"\\\"]||this.regionalOptions[\\\"\\\"]}function o(t,e){return t-e*Math.floor(t/e)}function s(t,e){return o(t-1,e)+1}a.prototype=new n.baseCalendar,i(a.prototype,{name:\\\"Mayan\\\",jdEpoch:584282.5,hasYearZero:!0,minMonth:0,firstMonth:0,minDay:0,regionalOptions:{\\\"\\\":{name:\\\"Mayan\\\",epochs:[\\\"\\\",\\\"\\\"],monthNames:[\\\"0\\\",\\\"1\\\",\\\"2\\\",\\\"3\\\",\\\"4\\\",\\\"5\\\",\\\"6\\\",\\\"7\\\",\\\"8\\\",\\\"9\\\",\\\"10\\\",\\\"11\\\",\\\"12\\\",\\\"13\\\",\\\"14\\\",\\\"15\\\",\\\"16\\\",\\\"17\\\"],monthNamesShort:[\\\"0\\\",\\\"1\\\",\\\"2\\\",\\\"3\\\",\\\"4\\\",\\\"5\\\",\\\"6\\\",\\\"7\\\",\\\"8\\\",\\\"9\\\",\\\"10\\\",\\\"11\\\",\\\"12\\\",\\\"13\\\",\\\"14\\\",\\\"15\\\",\\\"16\\\",\\\"17\\\"],dayNames:[\\\"0\\\",\\\"1\\\",\\\"2\\\",\\\"3\\\",\\\"4\\\",\\\"5\\\",\\\"6\\\",\\\"7\\\",\\\"8\\\",\\\"9\\\",\\\"10\\\",\\\"11\\\",\\\"12\\\",\\\"13\\\",\\\"14\\\",\\\"15\\\",\\\"16\\\",\\\"17\\\",\\\"18\\\",\\\"19\\\"],dayNamesShort:[\\\"0\\\",\\\"1\\\",\\\"2\\\",\\\"3\\\",\\\"4\\\",\\\"5\\\",\\\"6\\\",\\\"7\\\",\\\"8\\\",\\\"9\\\",\\\"10\\\",\\\"11\\\",\\\"12\\\",\\\"13\\\",\\\"14\\\",\\\"15\\\",\\\"16\\\",\\\"17\\\",\\\"18\\\",\\\"19\\\"],dayNamesMin:[\\\"0\\\",\\\"1\\\",\\\"2\\\",\\\"3\\\",\\\"4\\\",\\\"5\\\",\\\"6\\\",\\\"7\\\",\\\"8\\\",\\\"9\\\",\\\"10\\\",\\\"11\\\",\\\"12\\\",\\\"13\\\",\\\"14\\\",\\\"15\\\",\\\"16\\\",\\\"17\\\",\\\"18\\\",\\\"19\\\"],digits:null,dateFormat:\\\"YYYY.m.d\\\",firstDay:0,isRTL:!1,haabMonths:[\\\"Pop\\\",\\\"Uo\\\",\\\"Zip\\\",\\\"Zotz\\\",\\\"Tzec\\\",\\\"Xul\\\",\\\"Yaxkin\\\",\\\"Mol\\\",\\\"Chen\\\",\\\"Yax\\\",\\\"Zac\\\",\\\"Ceh\\\",\\\"Mac\\\",\\\"Kankin\\\",\\\"Muan\\\",\\\"Pax\\\",\\\"Kayab\\\",\\\"Cumku\\\",\\\"Uayeb\\\"],tzolkinMonths:[\\\"Imix\\\",\\\"Ik\\\",\\\"Akbal\\\",\\\"Kan\\\",\\\"Chicchan\\\",\\\"Cimi\\\",\\\"Manik\\\",\\\"Lamat\\\",\\\"Muluc\\\",\\\"Oc\\\",\\\"Chuen\\\",\\\"Eb\\\",\\\"Ben\\\",\\\"Ix\\\",\\\"Men\\\",\\\"Cib\\\",\\\"Caban\\\",\\\"Etznab\\\",\\\"Cauac\\\",\\\"Ahau\\\"]}},leapYear:function(t){return this._validate(t,this.minMonth,this.minDay,n.local.invalidYear),!1},formatYear:function(t){t=this._validate(t,this.minMonth,this.minDay,n.local.invalidYear).year();var e=Math.floor(t/400);return t%=400,t+=t<0?400:0,e+\\\".\\\"+Math.floor(t/20)+\\\".\\\"+t%20},forYear:function(t){if((t=t.split(\\\".\\\")).length<3)throw\\\"Invalid Mayan year\\\";for(var e=0,r=0;r<t.length;r++){var n=parseInt(t[r],10);if(Math.abs(n)>19||r>0&&n<0)throw\\\"Invalid Mayan year\\\";e=20*e+n}return e},monthsInYear:function(t){return this._validate(t,this.minMonth,this.minDay,n.local.invalidYear),18},weekOfYear:function(t,e,r){return this._validate(t,e,r,n.local.invalidDate),0},daysInYear:function(t){return this._validate(t,this.minMonth,this.minDay,n.local.invalidYear),360},daysInMonth:function(t,e){return this._validate(t,e,this.minDay,n.local.invalidMonth),20},daysInWeek:function(){return 5},dayOfWeek:function(t,e,r){return this._validate(t,e,r,n.local.invalidDate).day()},weekDay:function(t,e,r){return this._validate(t,e,r,n.local.invalidDate),!0},extraInfo:function(t,e,r){var i=this._validate(t,e,r,n.local.invalidDate).toJD(),a=this._toHaab(i),o=this._toTzolkin(i);return{haabMonthName:this.local.haabMonths[a[0]-1],haabMonth:a[0],haabDay:a[1],tzolkinDayName:this.local.tzolkinMonths[o[0]-1],tzolkinDay:o[0],tzolkinTrecena:o[1]}},_toHaab:function(t){var e=o((t-=this.jdEpoch)+8+340,365);return[Math.floor(e/20)+1,o(e,20)]},_toTzolkin:function(t){return[s((t-=this.jdEpoch)+20,20),s(t+4,13)]},toJD:function(t,e,r){var i=this._validate(t,e,r,n.local.invalidDate);return i.day()+20*i.month()+360*i.year()+this.jdEpoch},fromJD:function(t){t=Math.floor(t)+.5-this.jdEpoch;var e=Math.floor(t/360);t%=360,t+=t<0?360:0;var r=Math.floor(t/20),n=t%20;return this.newDate(e,r,n)}}),n.calendars.mayan=a},{\\\"../main\\\":558,\\\"object-assign\\\":449}],552:[function(t,e,r){var n=t(\\\"../main\\\"),i=t(\\\"object-assign\\\");function a(t){this.local=this.regionalOptions[t||\\\"\\\"]||this.regionalOptions[\\\"\\\"]}a.prototype=new n.baseCalendar;var o=n.instance(\\\"gregorian\\\");i(a.prototype,{name:\\\"Nanakshahi\\\",jdEpoch:2257673.5,daysPerMonth:[31,31,31,31,31,30,30,30,30,30,30,30],hasYearZero:!1,minMonth:1,firstMonth:1,minDay:1,regionalOptions:{\\\"\\\":{name:\\\"Nanakshahi\\\",epochs:[\\\"BN\\\",\\\"AN\\\"],monthNames:[\\\"Chet\\\",\\\"Vaisakh\\\",\\\"Jeth\\\",\\\"Harh\\\",\\\"Sawan\\\",\\\"Bhadon\\\",\\\"Assu\\\",\\\"Katak\\\",\\\"Maghar\\\",\\\"Poh\\\",\\\"Magh\\\",\\\"Phagun\\\"],monthNamesShort:[\\\"Che\\\",\\\"Vai\\\",\\\"Jet\\\",\\\"Har\\\",\\\"Saw\\\",\\\"Bha\\\",\\\"Ass\\\",\\\"Kat\\\",\\\"Mgr\\\",\\\"Poh\\\",\\\"Mgh\\\",\\\"Pha\\\"],dayNames:[\\\"Somvaar\\\",\\\"Mangalvar\\\",\\\"Budhvaar\\\",\\\"Veervaar\\\",\\\"Shukarvaar\\\",\\\"Sanicharvaar\\\",\\\"Etvaar\\\"],dayNamesShort:[\\\"Som\\\",\\\"Mangal\\\",\\\"Budh\\\",\\\"Veer\\\",\\\"Shukar\\\",\\\"Sanichar\\\",\\\"Et\\\"],dayNamesMin:[\\\"So\\\",\\\"Ma\\\",\\\"Bu\\\",\\\"Ve\\\",\\\"Sh\\\",\\\"Sa\\\",\\\"Et\\\"],digits:null,dateFormat:\\\"dd-mm-yyyy\\\",firstDay:0,isRTL:!1}},leapYear:function(t){var e=this._validate(t,this.minMonth,this.minDay,n.local.invalidYear||n.regionalOptions[\\\"\\\"].invalidYear);return o.leapYear(e.year()+(e.year()<1?1:0)+1469)},weekOfYear:function(t,e,r){var n=this.newDate(t,e,r);return n.add(1-(n.dayOfWeek()||7),\\\"d\\\"),Math.floor((n.dayOfYear()-1)/7)+1},daysInMonth:function(t,e){var r=this._validate(t,e,this.minDay,n.local.invalidMonth);return this.daysPerMonth[r.month()-1]+(12===r.month()&&this.leapYear(r.year())?1:0)},weekDay:function(t,e,r){return(this.dayOfWeek(t,e,r)||7)<6},toJD:function(t,e,r){var i=this._validate(t,e,r,n.local.invalidMonth);(t=i.year())<0&&t++;for(var a=i.day(),s=1;s<i.month();s++)a+=this.daysPerMonth[s-1];return a+o.toJD(t+1468,3,13)},fromJD:function(t){t=Math.floor(t+.5);for(var e=Math.floor((t-(this.jdEpoch-1))/366);t>=this.toJD(e+1,1,1);)e++;for(var r=t-Math.floor(this.toJD(e,1,1)+.5)+1,n=1;r>this.daysInMonth(e,n);)r-=this.daysInMonth(e,n),n++;return this.newDate(e,n,r)}}),n.calendars.nanakshahi=a},{\\\"../main\\\":558,\\\"object-assign\\\":449}],553:[function(t,e,r){var n=t(\\\"../main\\\"),i=t(\\\"object-assign\\\");function a(t){this.local=this.regionalOptions[t||\\\"\\\"]||this.regionalOptions[\\\"\\\"]}a.prototype=new n.baseCalendar,i(a.prototype,{name:\\\"Nepali\\\",jdEpoch:1700709.5,daysPerMonth:[31,31,32,32,31,30,30,29,30,29,30,30],hasYearZero:!1,minMonth:1,firstMonth:1,minDay:1,daysPerYear:365,regionalOptions:{\\\"\\\":{name:\\\"Nepali\\\",epochs:[\\\"BBS\\\",\\\"ABS\\\"],monthNames:[\\\"Baisakh\\\",\\\"Jestha\\\",\\\"Ashadh\\\",\\\"Shrawan\\\",\\\"Bhadra\\\",\\\"Ashwin\\\",\\\"Kartik\\\",\\\"Mangsir\\\",\\\"Paush\\\",\\\"Mangh\\\",\\\"Falgun\\\",\\\"Chaitra\\\"],monthNamesShort:[\\\"Bai\\\",\\\"Je\\\",\\\"As\\\",\\\"Shra\\\",\\\"Bha\\\",\\\"Ash\\\",\\\"Kar\\\",\\\"Mang\\\",\\\"Pau\\\",\\\"Ma\\\",\\\"Fal\\\",\\\"Chai\\\"],dayNames:[\\\"Aaitabaar\\\",\\\"Sombaar\\\",\\\"Manglbaar\\\",\\\"Budhabaar\\\",\\\"Bihibaar\\\",\\\"Shukrabaar\\\",\\\"Shanibaar\\\"],dayNamesShort:[\\\"Aaita\\\",\\\"Som\\\",\\\"Mangl\\\",\\\"Budha\\\",\\\"Bihi\\\",\\\"Shukra\\\",\\\"Shani\\\"],dayNamesMin:[\\\"Aai\\\",\\\"So\\\",\\\"Man\\\",\\\"Bu\\\",\\\"Bi\\\",\\\"Shu\\\",\\\"Sha\\\"],digits:null,dateFormat:\\\"dd/mm/yyyy\\\",firstDay:1,isRTL:!1}},leapYear:function(t){return this.daysInYear(t)!==this.daysPerYear},weekOfYear:function(t,e,r){var n=this.newDate(t,e,r);return n.add(-n.dayOfWeek(),\\\"d\\\"),Math.floor((n.dayOfYear()-1)/7)+1},daysInYear:function(t){if(t=this._validate(t,this.minMonth,this.minDay,n.local.invalidYear).year(),\\\"undefined\\\"==typeof this.NEPALI_CALENDAR_DATA[t])return this.daysPerYear;for(var e=0,r=this.minMonth;r<=12;r++)e+=this.NEPALI_CALENDAR_DATA[t][r];return e},daysInMonth:function(t,e){return t.year&&(e=t.month(),t=t.year()),this._validate(t,e,this.minDay,n.local.invalidMonth),\\\"undefined\\\"==typeof this.NEPALI_CALENDAR_DATA[t]?this.daysPerMonth[e-1]:this.NEPALI_CALENDAR_DATA[t][e]},weekDay:function(t,e,r){return 6!==this.dayOfWeek(t,e,r)},toJD:function(t,e,r){var i=this._validate(t,e,r,n.local.invalidDate);t=i.year(),e=i.month(),r=i.day();var a=n.instance(),o=0,s=e,l=t;this._createMissingCalendarData(t);var c=t-(s>9||9===s&&r>=this.NEPALI_CALENDAR_DATA[l][0]?56:57);for(9!==e&&(o=r,s--);9!==s;)s<=0&&(s=12,l--),o+=this.NEPALI_CALENDAR_DATA[l][s],s--;return 9===e?(o+=r-this.NEPALI_CALENDAR_DATA[l][0])<0&&(o+=a.daysInYear(c)):o+=this.NEPALI_CALENDAR_DATA[l][9]-this.NEPALI_CALENDAR_DATA[l][0],a.newDate(c,1,1).add(o,\\\"d\\\").toJD()},fromJD:function(t){var e=n.instance().fromJD(t),r=e.year(),i=e.dayOfYear(),a=r+56;this._createMissingCalendarData(a);for(var o=9,s=this.NEPALI_CALENDAR_DATA[a][0],l=this.NEPALI_CALENDAR_DATA[a][o]-s+1;i>l;)++o>12&&(o=1,a++),l+=this.NEPALI_CALENDAR_DATA[a][o];var c=this.NEPALI_CALENDAR_DATA[a][o]-(l-i);return this.newDate(a,o,c)},_createMissingCalendarData:function(t){var e=this.daysPerMonth.slice(0);e.unshift(17);for(var r=t-1;r<t+2;r++)\\\"undefined\\\"==typeof this.NEPALI_CALENDAR_DATA[r]&&(this.NEPALI_CALENDAR_DATA[r]=e)},NEPALI_CALENDAR_DATA:{1970:[18,31,31,32,31,31,31,30,29,30,29,30,30],1971:[18,31,31,32,31,32,30,30,29,30,29,30,30],1972:[17,31,32,31,32,31,30,30,30,29,29,30,30],1973:[19,30,32,31,32,31,30,30,30,29,30,29,31],1974:[19,31,31,32,30,31,31,30,29,30,29,30,30],1975:[18,31,31,32,32,30,31,30,29,30,29,30,30],1976:[17,31,32,31,32,31,30,30,30,29,29,30,31],1977:[18,31,32,31,32,31,31,29,30,29,30,29,31],1978:[18,31,31,32,31,31,31,30,29,30,29,30,30],1979:[18,31,31,32,32,31,30,30,29,30,29,30,30],1980:[17,31,32,31,32,31,30,30,30,29,29,30,31],1981:[18,31,31,31,32,31,31,29,30,30,29,30,30],1982:[18,31,31,32,31,31,31,30,29,30,29,30,30],1983:[18,31,31,32,32,31,30,30,29,30,29,30,30],1984:[17,31,32,31,32,31,30,30,30,29,29,30,31],1985:[18,31,31,31,32,31,31,29,30,30,29,30,30],1986:[18,31,31,32,31,31,31,30,29,30,29,30,30],1987:[18,31,32,31,32,31,30,30,29,30,29,30,30],1988:[17,31,32,31,32,31,30,30,30,29,29,30,31],1989:[18,31,31,31,32,31,31,30,29,30,29,30,30],1990:[18,31,31,32,31,31,31,30,29,30,29,30,30],1991:[18,31,32,31,32,31,30,30,29,30,29,30,30],1992:[17,31,32,31,32,31,30,30,30,29,30,29,31],1993:[18,31,31,31,32,31,31,30,29,30,29,30,30],1994:[18,31,31,32,31,31,31,30,29,30,29,30,30],1995:[17,31,32,31,32,31,30,30,30,29,29,30,30],1996:[17,31,32,31,32,31,30,30,30,29,30,29,31],1997:[18,31,31,32,31,31,31,30,29,30,29,30,30],1998:[18,31,31,32,31,31,31,30,29,30,29,30,30],1999:[17,31,32,31,32,31,30,30,30,29,29,30,31],2000:[17,30,32,31,32,31,30,30,30,29,30,29,31],2001:[18,31,31,32,31,31,31,30,29,30,29,30,30],2002:[18,31,31,32,32,31,30,30,29,30,29,30,30],2003:[17,31,32,31,32,31,30,30,30,29,29,30,31],2004:[17,30,32,31,32,31,30,30,30,29,30,29,31],2005:[18,31,31,32,31,31,31,30,29,30,29,30,30],2006:[18,31,31,32,32,31,30,30,29,30,29,30,30],2007:[17,31,32,31,32,31,30,30,30,29,29,30,31],2008:[17,31,31,31,32,31,31,29,30,30,29,29,31],2009:[18,31,31,32,31,31,31,30,29,30,29,30,30],2010:[18,31,31,32,32,31,30,30,29,30,29,30,30],2011:[17,31,32,31,32,31,30,30,30,29,29,30,31],2012:[17,31,31,31,32,31,31,29,30,30,29,30,30],2013:[18,31,31,32,31,31,31,30,29,30,29,30,30],2014:[18,31,31,32,32,31,30,30,29,30,29,30,30],2015:[17,31,32,31,32,31,30,30,30,29,29,30,31],2016:[17,31,31,31,32,31,31,29,30,30,29,30,30],2017:[18,31,31,32,31,31,31,30,29,30,29,30,30],2018:[18,31,32,31,32,31,30,30,29,30,29,30,30],2019:[17,31,32,31,32,31,30,30,30,29,30,29,31],2020:[17,31,31,31,32,31,31,30,29,30,29,30,30],2021:[18,31,31,32,31,31,31,30,29,30,29,30,30],2022:[17,31,32,31,32,31,30,30,30,29,29,30,30],2023:[17,31,32,31,32,31,30,30,30,29,30,29,31],2024:[17,31,31,31,32,31,31,30,29,30,29,30,30],2025:[18,31,31,32,31,31,31,30,29,30,29,30,30],2026:[17,31,32,31,32,31,30,30,30,29,29,30,31],2027:[17,30,32,31,32,31,30,30,30,29,30,29,31],2028:[17,31,31,32,31,31,31,30,29,30,29,30,30],2029:[18,31,31,32,31,32,30,30,29,30,29,30,30],2030:[17,31,32,31,32,31,30,30,30,30,30,30,31],2031:[17,31,32,31,32,31,31,31,31,31,31,31,31],2032:[17,32,32,32,32,32,32,32,32,32,32,32,32],2033:[18,31,31,32,32,31,30,30,29,30,29,30,30],2034:[17,31,32,31,32,31,30,30,30,29,29,30,31],2035:[17,30,32,31,32,31,31,29,30,30,29,29,31],2036:[17,31,31,32,31,31,31,30,29,30,29,30,30],2037:[18,31,31,32,32,31,30,30,29,30,29,30,30],2038:[17,31,32,31,32,31,30,30,30,29,29,30,31],2039:[17,31,31,31,32,31,31,29,30,30,29,30,30],2040:[17,31,31,32,31,31,31,30,29,30,29,30,30],2041:[18,31,31,32,32,31,30,30,29,30,29,30,30],2042:[17,31,32,31,32,31,30,30,30,29,29,30,31],2043:[17,31,31,31,32,31,31,29,30,30,29,30,30],2044:[17,31,31,32,31,31,31,30,29,30,29,30,30],2045:[18,31,32,31,32,31,30,30,29,30,29,30,30],2046:[17,31,32,31,32,31,30,30,30,29,29,30,31],2047:[17,31,31,31,32,31,31,30,29,30,29,30,30],2048:[17,31,31,32,31,31,31,30,29,30,29,30,30],2049:[17,31,32,31,32,31,30,30,30,29,29,30,30],2050:[17,31,32,31,32,31,30,30,30,29,30,29,31],2051:[17,31,31,31,32,31,31,30,29,30,29,30,30],2052:[17,31,31,32,31,31,31,30,29,30,29,30,30],2053:[17,31,32,31,32,31,30,30,30,29,29,30,30],2054:[17,31,32,31,32,31,30,30,30,29,30,29,31],2055:[17,31,31,32,31,31,31,30,29,30,30,29,30],2056:[17,31,31,32,31,32,30,30,29,30,29,30,30],2057:[17,31,32,31,32,31,30,30,30,29,29,30,31],2058:[17,30,32,31,32,31,30,30,30,29,30,29,31],2059:[17,31,31,32,31,31,31,30,29,30,29,30,30],2060:[17,31,31,32,32,31,30,30,29,30,29,30,30],2061:[17,31,32,31,32,31,30,30,30,29,29,30,31],2062:[17,30,32,31,32,31,31,29,30,29,30,29,31],2063:[17,31,31,32,31,31,31,30,29,30,29,30,30],2064:[17,31,31,32,32,31,30,30,29,30,29,30,30],2065:[17,31,32,31,32,31,30,30,30,29,29,30,31],2066:[17,31,31,31,32,31,31,29,30,30,29,29,31],2067:[17,31,31,32,31,31,31,30,29,30,29,30,30],2068:[17,31,31,32,32,31,30,30,29,30,29,30,30],2069:[17,31,32,31,32,31,30,30,30,29,29,30,31],2070:[17,31,31,31,32,31,31,29,30,30,29,30,30],2071:[17,31,31,32,31,31,31,30,29,30,29,30,30],2072:[17,31,32,31,32,31,30,30,29,30,29,30,30],2073:[17,31,32,31,32,31,30,30,30,29,29,30,31],2074:[17,31,31,31,32,31,31,30,29,30,29,30,30],2075:[17,31,31,32,31,31,31,30,29,30,29,30,30],2076:[16,31,32,31,32,31,30,30,30,29,29,30,30],2077:[17,31,32,31,32,31,30,30,30,29,30,29,31],2078:[17,31,31,31,32,31,31,30,29,30,29,30,30],2079:[17,31,31,32,31,31,31,30,29,30,29,30,30],2080:[16,31,32,31,32,31,30,30,30,29,29,30,30],2081:[17,31,31,32,32,31,30,30,30,29,30,30,30],2082:[17,31,32,31,32,31,30,30,30,29,30,30,30],2083:[17,31,31,32,31,31,30,30,30,29,30,30,30],2084:[17,31,31,32,31,31,30,30,30,29,30,30,30],2085:[17,31,32,31,32,31,31,30,30,29,30,30,30],2086:[17,31,32,31,32,31,30,30,30,29,30,30,30],2087:[16,31,31,32,31,31,31,30,30,29,30,30,30],2088:[16,30,31,32,32,30,31,30,30,29,30,30,30],2089:[17,31,32,31,32,31,30,30,30,29,30,30,30],2090:[17,31,32,31,32,31,30,30,30,29,30,30,30],2091:[16,31,31,32,31,31,31,30,30,29,30,30,30],2092:[16,31,31,32,32,31,30,30,30,29,30,30,30],2093:[17,31,32,31,32,31,30,30,30,29,30,30,30],2094:[17,31,31,32,31,31,30,30,30,29,30,30,30],2095:[17,31,31,32,31,31,31,30,29,30,30,30,30],2096:[17,30,31,32,32,31,30,30,29,30,29,30,30],2097:[17,31,32,31,32,31,30,30,30,29,30,30,30],2098:[17,31,31,32,31,31,31,29,30,29,30,30,31],2099:[17,31,31,32,31,31,31,30,29,29,30,30,30],2100:[17,31,32,31,32,30,31,30,29,30,29,30,30]}}),n.calendars.nepali=a},{\\\"../main\\\":558,\\\"object-assign\\\":449}],554:[function(t,e,r){var n=t(\\\"../main\\\"),i=t(\\\"object-assign\\\");function a(t){this.local=this.regionalOptions[t||\\\"\\\"]||this.regionalOptions[\\\"\\\"]}function o(t,e){return t-e*Math.floor(t/e)}a.prototype=new n.baseCalendar,i(a.prototype,{name:\\\"Persian\\\",jdEpoch:1948320.5,daysPerMonth:[31,31,31,31,31,31,30,30,30,30,30,29],hasYearZero:!1,minMonth:1,firstMonth:1,minDay:1,regionalOptions:{\\\"\\\":{name:\\\"Persian\\\",epochs:[\\\"BP\\\",\\\"AP\\\"],monthNames:[\\\"Farvardin\\\",\\\"Ordibehesht\\\",\\\"Khordad\\\",\\\"Tir\\\",\\\"Mordad\\\",\\\"Shahrivar\\\",\\\"Mehr\\\",\\\"Aban\\\",\\\"Azar\\\",\\\"Day\\\",\\\"Bahman\\\",\\\"Esfand\\\"],monthNamesShort:[\\\"Far\\\",\\\"Ord\\\",\\\"Kho\\\",\\\"Tir\\\",\\\"Mor\\\",\\\"Sha\\\",\\\"Meh\\\",\\\"Aba\\\",\\\"Aza\\\",\\\"Day\\\",\\\"Bah\\\",\\\"Esf\\\"],dayNames:[\\\"Yekshambe\\\",\\\"Doshambe\\\",\\\"Seshambe\\\",\\\"Ch\\\\xe6harshambe\\\",\\\"Panjshambe\\\",\\\"Jom'e\\\",\\\"Shambe\\\"],dayNamesShort:[\\\"Yek\\\",\\\"Do\\\",\\\"Se\\\",\\\"Ch\\\\xe6\\\",\\\"Panj\\\",\\\"Jom\\\",\\\"Sha\\\"],dayNamesMin:[\\\"Ye\\\",\\\"Do\\\",\\\"Se\\\",\\\"Ch\\\",\\\"Pa\\\",\\\"Jo\\\",\\\"Sh\\\"],digits:null,dateFormat:\\\"yyyy/mm/dd\\\",firstDay:6,isRTL:!1}},leapYear:function(t){var e=this._validate(t,this.minMonth,this.minDay,n.local.invalidYear);return 682*((e.year()-(e.year()>0?474:473))%2820+474+38)%2816<682},weekOfYear:function(t,e,r){var n=this.newDate(t,e,r);return n.add(-(n.dayOfWeek()+1)%7,\\\"d\\\"),Math.floor((n.dayOfYear()-1)/7)+1},daysInMonth:function(t,e){var r=this._validate(t,e,this.minDay,n.local.invalidMonth);return this.daysPerMonth[r.month()-1]+(12===r.month()&&this.leapYear(r.year())?1:0)},weekDay:function(t,e,r){return 5!==this.dayOfWeek(t,e,r)},toJD:function(t,e,r){var i=this._validate(t,e,r,n.local.invalidDate);t=i.year(),e=i.month(),r=i.day();var a=t-(t>=0?474:473),s=474+o(a,2820);return r+(e<=7?31*(e-1):30*(e-1)+6)+Math.floor((682*s-110)/2816)+365*(s-1)+1029983*Math.floor(a/2820)+this.jdEpoch-1},fromJD:function(t){var e=(t=Math.floor(t)+.5)-this.toJD(475,1,1),r=Math.floor(e/1029983),n=o(e,1029983),i=2820;if(1029982!==n){var a=Math.floor(n/366),s=o(n,366);i=Math.floor((2134*a+2816*s+2815)/1028522)+a+1}var l=i+2820*r+474;l=l<=0?l-1:l;var c=t-this.toJD(l,1,1)+1,u=c<=186?Math.ceil(c/31):Math.ceil((c-6)/30),f=t-this.toJD(l,u,1)+1;return this.newDate(l,u,f)}}),n.calendars.persian=a,n.calendars.jalali=a},{\\\"../main\\\":558,\\\"object-assign\\\":449}],555:[function(t,e,r){var n=t(\\\"../main\\\"),i=t(\\\"object-assign\\\"),a=n.instance();function o(t){this.local=this.regionalOptions[t||\\\"\\\"]||this.regionalOptions[\\\"\\\"]}o.prototype=new n.baseCalendar,i(o.prototype,{name:\\\"Taiwan\\\",jdEpoch:2419402.5,yearsOffset:1911,daysPerMonth:[31,28,31,30,31,30,31,31,30,31,30,31],hasYearZero:!1,minMonth:1,firstMonth:1,minDay:1,regionalOptions:{\\\"\\\":{name:\\\"Taiwan\\\",epochs:[\\\"BROC\\\",\\\"ROC\\\"],monthNames:[\\\"January\\\",\\\"February\\\",\\\"March\\\",\\\"April\\\",\\\"May\\\",\\\"June\\\",\\\"July\\\",\\\"August\\\",\\\"September\\\",\\\"October\\\",\\\"November\\\",\\\"December\\\"],monthNamesShort:[\\\"Jan\\\",\\\"Feb\\\",\\\"Mar\\\",\\\"Apr\\\",\\\"May\\\",\\\"Jun\\\",\\\"Jul\\\",\\\"Aug\\\",\\\"Sep\\\",\\\"Oct\\\",\\\"Nov\\\",\\\"Dec\\\"],dayNames:[\\\"Sunday\\\",\\\"Monday\\\",\\\"Tuesday\\\",\\\"Wednesday\\\",\\\"Thursday\\\",\\\"Friday\\\",\\\"Saturday\\\"],dayNamesShort:[\\\"Sun\\\",\\\"Mon\\\",\\\"Tue\\\",\\\"Wed\\\",\\\"Thu\\\",\\\"Fri\\\",\\\"Sat\\\"],dayNamesMin:[\\\"Su\\\",\\\"Mo\\\",\\\"Tu\\\",\\\"We\\\",\\\"Th\\\",\\\"Fr\\\",\\\"Sa\\\"],digits:null,dateFormat:\\\"yyyy/mm/dd\\\",firstDay:1,isRTL:!1}},leapYear:function(t){var e=this._validate(t,this.minMonth,this.minDay,n.local.invalidYear);t=this._t2gYear(e.year());return a.leapYear(t)},weekOfYear:function(t,e,r){var i=this._validate(t,this.minMonth,this.minDay,n.local.invalidYear);t=this._t2gYear(i.year());return a.weekOfYear(t,i.month(),i.day())},daysInMonth:function(t,e){var r=this._validate(t,e,this.minDay,n.local.invalidMonth);return this.daysPerMonth[r.month()-1]+(2===r.month()&&this.leapYear(r.year())?1:0)},weekDay:function(t,e,r){return(this.dayOfWeek(t,e,r)||7)<6},toJD:function(t,e,r){var i=this._validate(t,e,r,n.local.invalidDate);t=this._t2gYear(i.year());return a.toJD(t,i.month(),i.day())},fromJD:function(t){var e=a.fromJD(t),r=this._g2tYear(e.year());return this.newDate(r,e.month(),e.day())},_t2gYear:function(t){return t+this.yearsOffset+(t>=-this.yearsOffset&&t<=-1?1:0)},_g2tYear:function(t){return t-this.yearsOffset-(t>=1&&t<=this.yearsOffset?1:0)}}),n.calendars.taiwan=o},{\\\"../main\\\":558,\\\"object-assign\\\":449}],556:[function(t,e,r){var n=t(\\\"../main\\\"),i=t(\\\"object-assign\\\"),a=n.instance();function o(t){this.local=this.regionalOptions[t||\\\"\\\"]||this.regionalOptions[\\\"\\\"]}o.prototype=new n.baseCalendar,i(o.prototype,{name:\\\"Thai\\\",jdEpoch:1523098.5,yearsOffset:543,daysPerMonth:[31,28,31,30,31,30,31,31,30,31,30,31],hasYearZero:!1,minMonth:1,firstMonth:1,minDay:1,regionalOptions:{\\\"\\\":{name:\\\"Thai\\\",epochs:[\\\"BBE\\\",\\\"BE\\\"],monthNames:[\\\"January\\\",\\\"February\\\",\\\"March\\\",\\\"April\\\",\\\"May\\\",\\\"June\\\",\\\"July\\\",\\\"August\\\",\\\"September\\\",\\\"October\\\",\\\"November\\\",\\\"December\\\"],monthNamesShort:[\\\"Jan\\\",\\\"Feb\\\",\\\"Mar\\\",\\\"Apr\\\",\\\"May\\\",\\\"Jun\\\",\\\"Jul\\\",\\\"Aug\\\",\\\"Sep\\\",\\\"Oct\\\",\\\"Nov\\\",\\\"Dec\\\"],dayNames:[\\\"Sunday\\\",\\\"Monday\\\",\\\"Tuesday\\\",\\\"Wednesday\\\",\\\"Thursday\\\",\\\"Friday\\\",\\\"Saturday\\\"],dayNamesShort:[\\\"Sun\\\",\\\"Mon\\\",\\\"Tue\\\",\\\"Wed\\\",\\\"Thu\\\",\\\"Fri\\\",\\\"Sat\\\"],dayNamesMin:[\\\"Su\\\",\\\"Mo\\\",\\\"Tu\\\",\\\"We\\\",\\\"Th\\\",\\\"Fr\\\",\\\"Sa\\\"],digits:null,dateFormat:\\\"dd/mm/yyyy\\\",firstDay:0,isRTL:!1}},leapYear:function(t){var e=this._validate(t,this.minMonth,this.minDay,n.local.invalidYear);t=this._t2gYear(e.year());return a.leapYear(t)},weekOfYear:function(t,e,r){var i=this._validate(t,this.minMonth,this.minDay,n.local.invalidYear);t=this._t2gYear(i.year());return a.weekOfYear(t,i.month(),i.day())},daysInMonth:function(t,e){var r=this._validate(t,e,this.minDay,n.local.invalidMonth);return this.daysPerMonth[r.month()-1]+(2===r.month()&&this.leapYear(r.year())?1:0)},weekDay:function(t,e,r){return(this.dayOfWeek(t,e,r)||7)<6},toJD:function(t,e,r){var i=this._validate(t,e,r,n.local.invalidDate);t=this._t2gYear(i.year());return a.toJD(t,i.month(),i.day())},fromJD:function(t){var e=a.fromJD(t),r=this._g2tYear(e.year());return this.newDate(r,e.month(),e.day())},_t2gYear:function(t){return t-this.yearsOffset-(t>=1&&t<=this.yearsOffset?1:0)},_g2tYear:function(t){return t+this.yearsOffset+(t>=-this.yearsOffset&&t<=-1?1:0)}}),n.calendars.thai=o},{\\\"../main\\\":558,\\\"object-assign\\\":449}],557:[function(t,e,r){var n=t(\\\"../main\\\"),i=t(\\\"object-assign\\\");function a(t){this.local=this.regionalOptions[t||\\\"\\\"]||this.regionalOptions[\\\"\\\"]}a.prototype=new n.baseCalendar,i(a.prototype,{name:\\\"UmmAlQura\\\",hasYearZero:!1,minMonth:1,firstMonth:1,minDay:1,regionalOptions:{\\\"\\\":{name:\\\"Umm al-Qura\\\",epochs:[\\\"BH\\\",\\\"AH\\\"],monthNames:[\\\"Al-Muharram\\\",\\\"Safar\\\",\\\"Rabi' al-awwal\\\",\\\"Rabi' Al-Thani\\\",\\\"Jumada Al-Awwal\\\",\\\"Jumada Al-Thani\\\",\\\"Rajab\\\",\\\"Sha'aban\\\",\\\"Ramadan\\\",\\\"Shawwal\\\",\\\"Dhu al-Qi'dah\\\",\\\"Dhu al-Hijjah\\\"],monthNamesShort:[\\\"Muh\\\",\\\"Saf\\\",\\\"Rab1\\\",\\\"Rab2\\\",\\\"Jum1\\\",\\\"Jum2\\\",\\\"Raj\\\",\\\"Sha'\\\",\\\"Ram\\\",\\\"Shaw\\\",\\\"DhuQ\\\",\\\"DhuH\\\"],dayNames:[\\\"Yawm al-Ahad\\\",\\\"Yawm al-Ithnain\\\",\\\"Yawm al-Thal\\\\u0101th\\\\u0101\\\\u2019\\\",\\\"Yawm al-Arba\\\\u2018\\\\u0101\\\\u2019\\\",\\\"Yawm al-Kham\\\\u012bs\\\",\\\"Yawm al-Jum\\\\u2018a\\\",\\\"Yawm al-Sabt\\\"],dayNamesMin:[\\\"Ah\\\",\\\"Ith\\\",\\\"Th\\\",\\\"Ar\\\",\\\"Kh\\\",\\\"Ju\\\",\\\"Sa\\\"],digits:null,dateFormat:\\\"yyyy/mm/dd\\\",firstDay:6,isRTL:!0}},leapYear:function(t){var e=this._validate(t,this.minMonth,this.minDay,n.local.invalidYear);return 355===this.daysInYear(e.year())},weekOfYear:function(t,e,r){var n=this.newDate(t,e,r);return n.add(-n.dayOfWeek(),\\\"d\\\"),Math.floor((n.dayOfYear()-1)/7)+1},daysInYear:function(t){for(var e=0,r=1;r<=12;r++)e+=this.daysInMonth(t,r);return e},daysInMonth:function(t,e){for(var r=this._validate(t,e,this.minDay,n.local.invalidMonth).toJD()-24e5+.5,i=0,a=0;a<o.length;a++){if(o[a]>r)return o[i]-o[i-1];i++}return 30},weekDay:function(t,e,r){return 5!==this.dayOfWeek(t,e,r)},toJD:function(t,e,r){var i=this._validate(t,e,r,n.local.invalidDate),a=12*(i.year()-1)+i.month()-15292;return i.day()+o[a-1]-1+24e5-.5},fromJD:function(t){for(var e=t-24e5+.5,r=0,n=0;n<o.length&&!(o[n]>e);n++)r++;var i=r+15292,a=Math.floor((i-1)/12),s=a+1,l=i-12*a,c=e-o[r-1]+1;return this.newDate(s,l,c)},isValid:function(t,e,r){var i=n.baseCalendar.prototype.isValid.apply(this,arguments);return i&&(i=(t=null!=t.year?t.year:t)>=1276&&t<=1500),i},_validate:function(t,e,r,i){var a=n.baseCalendar.prototype._validate.apply(this,arguments);if(a.year<1276||a.year>1500)throw i.replace(/\\\\{0\\\\}/,this.local.name);return a}}),n.calendars.ummalqura=a;var o=[20,50,79,109,138,168,197,227,256,286,315,345,374,404,433,463,492,522,551,581,611,641,670,700,729,759,788,818,847,877,906,936,965,995,1024,1054,1083,1113,1142,1172,1201,1231,1260,1290,1320,1350,1379,1409,1438,1468,1497,1527,1556,1586,1615,1645,1674,1704,1733,1763,1792,1822,1851,1881,1910,1940,1969,1999,2028,2058,2087,2117,2146,2176,2205,2235,2264,2294,2323,2353,2383,2413,2442,2472,2501,2531,2560,2590,2619,2649,2678,2708,2737,2767,2796,2826,2855,2885,2914,2944,2973,3003,3032,3062,3091,3121,3150,3180,3209,3239,3268,3298,3327,3357,3386,3416,3446,3476,3505,3535,3564,3594,3623,3653,3682,3712,3741,3771,3800,3830,3859,3889,3918,3948,3977,4007,4036,4066,4095,4125,4155,4185,4214,4244,4273,4303,4332,4362,4391,4421,4450,4480,4509,4539,4568,4598,4627,4657,4686,4716,4745,4775,4804,4834,4863,4893,4922,4952,4981,5011,5040,5070,5099,5129,5158,5188,5218,5248,5277,5307,5336,5366,5395,5425,5454,5484,5513,5543,5572,5602,5631,5661,5690,5720,5749,5779,5808,5838,5867,5897,5926,5956,5985,6015,6044,6074,6103,6133,6162,6192,6221,6251,6281,6311,6340,6370,6399,6429,6458,6488,6517,6547,6576,6606,6635,6665,6694,6724,6753,6783,6812,6842,6871,6901,6930,6960,6989,7019,7048,7078,7107,7137,7166,7196,7225,7255,7284,7314,7344,7374,7403,7433,7462,7492,7521,7551,7580,7610,7639,7669,7698,7728,7757,7787,7816,7846,7875,7905,7934,7964,7993,8023,8053,8083,8112,8142,8171,8201,8230,8260,8289,8319,8348,8378,8407,8437,8466,8496,8525,8555,8584,8614,8643,8673,8702,8732,8761,8791,8821,8850,8880,8909,8938,8968,8997,9027,9056,9086,9115,9145,9175,9205,9234,9264,9293,9322,9352,9381,9410,9440,9470,9499,9529,9559,9589,9618,9648,9677,9706,9736,9765,9794,9824,9853,9883,9913,9943,9972,10002,10032,10061,10090,10120,10149,10178,10208,10237,10267,10297,10326,10356,10386,10415,10445,10474,10504,10533,10562,10592,10621,10651,10680,10710,10740,10770,10799,10829,10858,10888,10917,10947,10976,11005,11035,11064,11094,11124,11153,11183,11213,11242,11272,11301,11331,11360,11389,11419,11448,11478,11507,11537,11567,11596,11626,11655,11685,11715,11744,11774,11803,11832,11862,11891,11921,11950,11980,12010,12039,12069,12099,12128,12158,12187,12216,12246,12275,12304,12334,12364,12393,12423,12453,12483,12512,12542,12571,12600,12630,12659,12688,12718,12747,12777,12807,12837,12866,12896,12926,12955,12984,13014,13043,13072,13102,13131,13161,13191,13220,13250,13280,13310,13339,13368,13398,13427,13456,13486,13515,13545,13574,13604,13634,13664,13693,13723,13752,13782,13811,13840,13870,13899,13929,13958,13988,14018,14047,14077,14107,14136,14166,14195,14224,14254,14283,14313,14342,14372,14401,14431,14461,14490,14520,14550,14579,14609,14638,14667,14697,14726,14756,14785,14815,14844,14874,14904,14933,14963,14993,15021,15051,15081,15110,15140,15169,15199,15228,15258,15287,15317,15347,15377,15406,15436,15465,15494,15524,15553,15582,15612,15641,15671,15701,15731,15760,15790,15820,15849,15878,15908,15937,15966,15996,16025,16055,16085,16114,16144,16174,16204,16233,16262,16292,16321,16350,16380,16409,16439,16468,16498,16528,16558,16587,16617,16646,16676,16705,16734,16764,16793,16823,16852,16882,16912,16941,16971,17001,17030,17060,17089,17118,17148,17177,17207,17236,17266,17295,17325,17355,17384,17414,17444,17473,17502,17532,17561,17591,17620,17650,17679,17709,17738,17768,17798,17827,17857,17886,17916,17945,17975,18004,18034,18063,18093,18122,18152,18181,18211,18241,18270,18300,18330,18359,18388,18418,18447,18476,18506,18535,18565,18595,18625,18654,18684,18714,18743,18772,18802,18831,18860,18890,18919,18949,18979,19008,19038,19068,19098,19127,19156,19186,19215,19244,19274,19303,19333,19362,19392,19422,19452,19481,19511,19540,19570,19599,19628,19658,19687,19717,19746,19776,19806,19836,19865,19895,19924,19954,19983,20012,20042,20071,20101,20130,20160,20190,20219,20249,20279,20308,20338,20367,20396,20426,20455,20485,20514,20544,20573,20603,20633,20662,20692,20721,20751,20780,20810,20839,20869,20898,20928,20957,20987,21016,21046,21076,21105,21135,21164,21194,21223,21253,21282,21312,21341,21371,21400,21430,21459,21489,21519,21548,21578,21607,21637,21666,21696,21725,21754,21784,21813,21843,21873,21902,21932,21962,21991,22021,22050,22080,22109,22138,22168,22197,22227,22256,22286,22316,22346,22375,22405,22434,22464,22493,22522,22552,22581,22611,22640,22670,22700,22730,22759,22789,22818,22848,22877,22906,22936,22965,22994,23024,23054,23083,23113,23143,23173,23202,23232,23261,23290,23320,23349,23379,23408,23438,23467,23497,23527,23556,23586,23616,23645,23674,23704,23733,23763,23792,23822,23851,23881,23910,23940,23970,23999,24029,24058,24088,24117,24147,24176,24206,24235,24265,24294,24324,24353,24383,24413,24442,24472,24501,24531,24560,24590,24619,24648,24678,24707,24737,24767,24796,24826,24856,24885,24915,24944,24974,25003,25032,25062,25091,25121,25150,25180,25210,25240,25269,25299,25328,25358,25387,25416,25446,25475,25505,25534,25564,25594,25624,25653,25683,25712,25742,25771,25800,25830,25859,25888,25918,25948,25977,26007,26037,26067,26096,26126,26155,26184,26214,26243,26272,26302,26332,26361,26391,26421,26451,26480,26510,26539,26568,26598,26627,26656,26686,26715,26745,26775,26805,26834,26864,26893,26923,26952,26982,27011,27041,27070,27099,27129,27159,27188,27218,27248,27277,27307,27336,27366,27395,27425,27454,27484,27513,27542,27572,27602,27631,27661,27691,27720,27750,27779,27809,27838,27868,27897,27926,27956,27985,28015,28045,28074,28104,28134,28163,28193,28222,28252,28281,28310,28340,28369,28399,28428,28458,28488,28517,28547,28577,28607,28636,28665,28695,28724,28754,28783,28813,28843,28872,28901,28931,28960,28990,29019,29049,29078,29108,29137,29167,29196,29226,29255,29285,29315,29345,29375,29404,29434,29463,29492,29522,29551,29580,29610,29640,29669,29699,29729,29759,29788,29818,29847,29876,29906,29935,29964,29994,30023,30053,30082,30112,30141,30171,30200,30230,30259,30289,30318,30348,30378,30408,30437,30467,30496,30526,30555,30585,30614,30644,30673,30703,30732,30762,30791,30821,30850,30880,30909,30939,30968,30998,31027,31057,31086,31116,31145,31175,31204,31234,31263,31293,31322,31352,31381,31411,31441,31471,31500,31530,31559,31589,31618,31648,31676,31706,31736,31766,31795,31825,31854,31884,31913,31943,31972,32002,32031,32061,32090,32120,32150,32180,32209,32239,32268,32298,32327,32357,32386,32416,32445,32475,32504,32534,32563,32593,32622,32652,32681,32711,32740,32770,32799,32829,32858,32888,32917,32947,32976,33006,33035,33065,33094,33124,33153,33183,33213,33243,33272,33302,33331,33361,33390,33420,33450,33479,33509,33539,33568,33598,33627,33657,33686,33716,33745,33775,33804,33834,33863,33893,33922,33952,33981,34011,34040,34069,34099,34128,34158,34187,34217,34247,34277,34306,34336,34365,34395,34424,34454,34483,34512,34542,34571,34601,34631,34660,34690,34719,34749,34778,34808,34837,34867,34896,34926,34955,34985,35015,35044,35074,35103,35133,35162,35192,35222,35251,35280,35310,35340,35370,35399,35429,35458,35488,35517,35547,35576,35605,35635,35665,35694,35723,35753,35782,35811,35841,35871,35901,35930,35960,35989,36019,36048,36078,36107,36136,36166,36195,36225,36254,36284,36314,36343,36373,36403,36433,36462,36492,36521,36551,36580,36610,36639,36669,36698,36728,36757,36786,36816,36845,36875,36904,36934,36963,36993,37022,37052,37081,37111,37141,37170,37200,37229,37259,37288,37318,37347,37377,37406,37436,37465,37495,37524,37554,37584,37613,37643,37672,37701,37731,37760,37790,37819,37849,37878,37908,37938,37967,37997,38027,38056,38085,38115,38144,38174,38203,38233,38262,38292,38322,38351,38381,38410,38440,38469,38499,38528,38558,38587,38617,38646,38676,38705,38735,38764,38794,38823,38853,38882,38912,38941,38971,39001,39030,39059,39089,39118,39148,39178,39208,39237,39267,39297,39326,39355,39385,39414,39444,39473,39503,39532,39562,39592,39621,39650,39680,39709,39739,39768,39798,39827,39857,39886,39916,39946,39975,40005,40035,40064,40094,40123,40153,40182,40212,40241,40271,40300,40330,40359,40389,40418,40448,40477,40507,40536,40566,40595,40625,40655,40685,40714,40744,40773,40803,40832,40862,40892,40921,40951,40980,41009,41039,41068,41098,41127,41157,41186,41216,41245,41275,41304,41334,41364,41393,41422,41452,41481,41511,41540,41570,41599,41629,41658,41688,41718,41748,41777,41807,41836,41865,41894,41924,41953,41983,42012,42042,42072,42102,42131,42161,42190,42220,42249,42279,42308,42337,42367,42397,42426,42456,42485,42515,42545,42574,42604,42633,42662,42692,42721,42751,42780,42810,42839,42869,42899,42929,42958,42988,43017,43046,43076,43105,43135,43164,43194,43223,43253,43283,43312,43342,43371,43401,43430,43460,43489,43519,43548,43578,43607,43637,43666,43696,43726,43755,43785,43814,43844,43873,43903,43932,43962,43991,44021,44050,44080,44109,44139,44169,44198,44228,44258,44287,44317,44346,44375,44405,44434,44464,44493,44523,44553,44582,44612,44641,44671,44700,44730,44759,44788,44818,44847,44877,44906,44936,44966,44996,45025,45055,45084,45114,45143,45172,45202,45231,45261,45290,45320,45350,45380,45409,45439,45468,45498,45527,45556,45586,45615,45644,45674,45704,45733,45763,45793,45823,45852,45882,45911,45940,45970,45999,46028,46058,46088,46117,46147,46177,46206,46236,46265,46295,46324,46354,46383,46413,46442,46472,46501,46531,46560,46590,46620,46649,46679,46708,46738,46767,46797,46826,46856,46885,46915,46944,46974,47003,47033,47063,47092,47122,47151,47181,47210,47240,47269,47298,47328,47357,47387,47417,47446,47476,47506,47535,47565,47594,47624,47653,47682,47712,47741,47771,47800,47830,47860,47890,47919,47949,47978,48008,48037,48066,48096,48125,48155,48184,48214,48244,48273,48303,48333,48362,48392,48421,48450,48480,48509,48538,48568,48598,48627,48657,48687,48717,48746,48776,48805,48834,48864,48893,48922,48952,48982,49011,49041,49071,49100,49130,49160,49189,49218,49248,49277,49306,49336,49365,49395,49425,49455,49484,49514,49543,49573,49602,49632,49661,49690,49720,49749,49779,49809,49838,49868,49898,49927,49957,49986,50016,50045,50075,50104,50133,50163,50192,50222,50252,50281,50311,50340,50370,50400,50429,50459,50488,50518,50547,50576,50606,50635,50665,50694,50724,50754,50784,50813,50843,50872,50902,50931,50960,50990,51019,51049,51078,51108,51138,51167,51197,51227,51256,51286,51315,51345,51374,51403,51433,51462,51492,51522,51552,51582,51611,51641,51670,51699,51729,51758,51787,51816,51846,51876,51906,51936,51965,51995,52025,52054,52083,52113,52142,52171,52200,52230,52260,52290,52319,52349,52379,52408,52438,52467,52497,52526,52555,52585,52614,52644,52673,52703,52733,52762,52792,52822,52851,52881,52910,52939,52969,52998,53028,53057,53087,53116,53146,53176,53205,53235,53264,53294,53324,53353,53383,53412,53441,53471,53500,53530,53559,53589,53619,53648,53678,53708,53737,53767,53796,53825,53855,53884,53913,53943,53973,54003,54032,54062,54092,54121,54151,54180,54209,54239,54268,54297,54327,54357,54387,54416,54446,54476,54505,54535,54564,54593,54623,54652,54681,54711,54741,54770,54800,54830,54859,54889,54919,54948,54977,55007,55036,55066,55095,55125,55154,55184,55213,55243,55273,55302,55332,55361,55391,55420,55450,55479,55508,55538,55567,55597,55627,55657,55686,55716,55745,55775,55804,55834,55863,55892,55922,55951,55981,56011,56040,56070,56100,56129,56159,56188,56218,56247,56276,56306,56335,56365,56394,56424,56454,56483,56513,56543,56572,56601,56631,56660,56690,56719,56749,56778,56808,56837,56867,56897,56926,56956,56985,57015,57044,57074,57103,57133,57162,57192,57221,57251,57280,57310,57340,57369,57399,57429,57458,57487,57517,57546,57576,57605,57634,57664,57694,57723,57753,57783,57813,57842,57871,57901,57930,57959,57989,58018,58048,58077,58107,58137,58167,58196,58226,58255,58285,58314,58343,58373,58402,58432,58461,58491,58521,58551,58580,58610,58639,58669,58698,58727,58757,58786,58816,58845,58875,58905,58934,58964,58994,59023,59053,59082,59111,59141,59170,59200,59229,59259,59288,59318,59348,59377,59407,59436,59466,59495,59525,59554,59584,59613,59643,59672,59702,59731,59761,59791,59820,59850,59879,59909,59939,59968,59997,60027,60056,60086,60115,60145,60174,60204,60234,60264,60293,60323,60352,60381,60411,60440,60469,60499,60528,60558,60588,60618,60648,60677,60707,60736,60765,60795,60824,60853,60883,60912,60942,60972,61002,61031,61061,61090,61120,61149,61179,61208,61237,61267,61296,61326,61356,61385,61415,61445,61474,61504,61533,61563,61592,61621,61651,61680,61710,61739,61769,61799,61828,61858,61888,61917,61947,61976,62006,62035,62064,62094,62123,62153,62182,62212,62242,62271,62301,62331,62360,62390,62419,62448,62478,62507,62537,62566,62596,62625,62655,62685,62715,62744,62774,62803,62832,62862,62891,62921,62950,62980,63009,63039,63069,63099,63128,63157,63187,63216,63246,63275,63305,63334,63363,63393,63423,63453,63482,63512,63541,63571,63600,63630,63659,63689,63718,63747,63777,63807,63836,63866,63895,63925,63955,63984,64014,64043,64073,64102,64131,64161,64190,64220,64249,64279,64309,64339,64368,64398,64427,64457,64486,64515,64545,64574,64603,64633,64663,64692,64722,64752,64782,64811,64841,64870,64899,64929,64958,64987,65017,65047,65076,65106,65136,65166,65195,65225,65254,65283,65313,65342,65371,65401,65431,65460,65490,65520,65549,65579,65608,65638,65667,65697,65726,65755,65785,65815,65844,65874,65903,65933,65963,65992,66022,66051,66081,66110,66140,66169,66199,66228,66258,66287,66317,66346,66376,66405,66435,66465,66494,66524,66553,66583,66612,66641,66671,66700,66730,66760,66789,66819,66849,66878,66908,66937,66967,66996,67025,67055,67084,67114,67143,67173,67203,67233,67262,67292,67321,67351,67380,67409,67439,67468,67497,67527,67557,67587,67617,67646,67676,67705,67735,67764,67793,67823,67852,67882,67911,67941,67971,68e3,68030,68060,68089,68119,68148,68177,68207,68236,68266,68295,68325,68354,68384,68414,68443,68473,68502,68532,68561,68591,68620,68650,68679,68708,68738,68768,68797,68827,68857,68886,68916,68946,68975,69004,69034,69063,69092,69122,69152,69181,69211,69240,69270,69300,69330,69359,69388,69418,69447,69476,69506,69535,69565,69595,69624,69654,69684,69713,69743,69772,69802,69831,69861,69890,69919,69949,69978,70008,70038,70067,70097,70126,70156,70186,70215,70245,70274,70303,70333,70362,70392,70421,70451,70481,70510,70540,70570,70599,70629,70658,70687,70717,70746,70776,70805,70835,70864,70894,70924,70954,70983,71013,71042,71071,71101,71130,71159,71189,71218,71248,71278,71308,71337,71367,71397,71426,71455,71485,71514,71543,71573,71602,71632,71662,71691,71721,71751,71781,71810,71839,71869,71898,71927,71957,71986,72016,72046,72075,72105,72135,72164,72194,72223,72253,72282,72311,72341,72370,72400,72429,72459,72489,72518,72548,72577,72607,72637,72666,72695,72725,72754,72784,72813,72843,72872,72902,72931,72961,72991,73020,73050,73080,73109,73139,73168,73197,73227,73256,73286,73315,73345,73375,73404,73434,73464,73493,73523,73552,73581,73611,73640,73669,73699,73729,73758,73788,73818,73848,73877,73907,73936,73965,73995,74024,74053,74083,74113,74142,74172,74202,74231,74261,74291,74320,74349,74379,74408,74437,74467,74497,74526,74556,74586,74615,74645,74675,74704,74733,74763,74792,74822,74851,74881,74910,74940,74969,74999,75029,75058,75088,75117,75147,75176,75206,75235,75264,75294,75323,75353,75383,75412,75442,75472,75501,75531,75560,75590,75619,75648,75678,75707,75737,75766,75796,75826,75856,75885,75915,75944,75974,76003,76032,76062,76091,76121,76150,76180,76210,76239,76269,76299,76328,76358,76387,76416,76446,76475,76505,76534,76564,76593,76623,76653,76682,76712,76741,76771,76801,76830,76859,76889,76918,76948,76977,77007,77036,77066,77096,77125,77155,77185,77214,77243,77273,77302,77332,77361,77390,77420,77450,77479,77509,77539,77569,77598,77627,77657,77686,77715,77745,77774,77804,77833,77863,77893,77923,77952,77982,78011,78041,78070,78099,78129,78158,78188,78217,78247,78277,78307,78336,78366,78395,78425,78454,78483,78513,78542,78572,78601,78631,78661,78690,78720,78750,78779,78808,78838,78867,78897,78926,78956,78985,79015,79044,79074,79104,79133,79163,79192,79222,79251,79281,79310,79340,79369,79399,79428,79458,79487,79517,79546,79576,79606,79635,79665,79695,79724,79753,79783,79812,79841,79871,79900,79930,79960,79990]},{\\\"../main\\\":558,\\\"object-assign\\\":449}],558:[function(t,e,r){var n=t(\\\"object-assign\\\");function i(){this.regionalOptions=[],this.regionalOptions[\\\"\\\"]={invalidCalendar:\\\"Calendar {0} not found\\\",invalidDate:\\\"Invalid {0} date\\\",invalidMonth:\\\"Invalid {0} month\\\",invalidYear:\\\"Invalid {0} year\\\",differentCalendars:\\\"Cannot mix {0} and {1} dates\\\"},this.local=this.regionalOptions[\\\"\\\"],this.calendars={},this._localCals={}}function a(t,e,r,n){if(this._calendar=t,this._year=e,this._month=r,this._day=n,0===this._calendar._validateLevel&&!this._calendar.isValid(this._year,this._month,this._day))throw(c.local.invalidDate||c.regionalOptions[\\\"\\\"].invalidDate).replace(/\\\\{0\\\\}/,this._calendar.local.name)}function o(t,e){return\\\"000000\\\".substring(0,e-(t=\\\"\\\"+t).length)+t}function s(){this.shortYearCutoff=\\\"+10\\\"}function l(t){this.local=this.regionalOptions[t]||this.regionalOptions[\\\"\\\"]}n(i.prototype,{instance:function(t,e){t=(t||\\\"gregorian\\\").toLowerCase(),e=e||\\\"\\\";var r=this._localCals[t+\\\"-\\\"+e];if(!r&&this.calendars[t]&&(r=new this.calendars[t](e),this._localCals[t+\\\"-\\\"+e]=r),!r)throw(this.local.invalidCalendar||this.regionalOptions[\\\"\\\"].invalidCalendar).replace(/\\\\{0\\\\}/,t);return r},newDate:function(t,e,r,n,i){return(n=(null!=t&&t.year?t.calendar():\\\"string\\\"==typeof n?this.instance(n,i):n)||this.instance()).newDate(t,e,r)},substituteDigits:function(t){return function(e){return(e+\\\"\\\").replace(/[0-9]/g,function(e){return t[e]})}},substituteChineseDigits:function(t,e){return function(r){for(var n=\\\"\\\",i=0;r>0;){var a=r%10;n=(0===a?\\\"\\\":t[a]+e[i])+n,i++,r=Math.floor(r/10)}return 0===n.indexOf(t[1]+e[1])&&(n=n.substr(1)),n||t[0]}}}),n(a.prototype,{newDate:function(t,e,r){return this._calendar.newDate(null==t?this:t,e,r)},year:function(t){return 0===arguments.length?this._year:this.set(t,\\\"y\\\")},month:function(t){return 0===arguments.length?this._month:this.set(t,\\\"m\\\")},day:function(t){return 0===arguments.length?this._day:this.set(t,\\\"d\\\")},date:function(t,e,r){if(!this._calendar.isValid(t,e,r))throw(c.local.invalidDate||c.regionalOptions[\\\"\\\"].invalidDate).replace(/\\\\{0\\\\}/,this._calendar.local.name);return this._year=t,this._month=e,this._day=r,this},leapYear:function(){return this._calendar.leapYear(this)},epoch:function(){return this._calendar.epoch(this)},formatYear:function(){return this._calendar.formatYear(this)},monthOfYear:function(){return this._calendar.monthOfYear(this)},weekOfYear:function(){return this._calendar.weekOfYear(this)},daysInYear:function(){return this._calendar.daysInYear(this)},dayOfYear:function(){return this._calendar.dayOfYear(this)},daysInMonth:function(){return this._calendar.daysInMonth(this)},dayOfWeek:function(){return this._calendar.dayOfWeek(this)},weekDay:function(){return this._calendar.weekDay(this)},extraInfo:function(){return this._calendar.extraInfo(this)},add:function(t,e){return this._calendar.add(this,t,e)},set:function(t,e){return this._calendar.set(this,t,e)},compareTo:function(t){if(this._calendar.name!==t._calendar.name)throw(c.local.differentCalendars||c.regionalOptions[\\\"\\\"].differentCalendars).replace(/\\\\{0\\\\}/,this._calendar.local.name).replace(/\\\\{1\\\\}/,t._calendar.local.name);var e=this._year!==t._year?this._year-t._year:this._month!==t._month?this.monthOfYear()-t.monthOfYear():this._day-t._day;return 0===e?0:e<0?-1:1},calendar:function(){return this._calendar},toJD:function(){return this._calendar.toJD(this)},fromJD:function(t){return this._calendar.fromJD(t)},toJSDate:function(){return this._calendar.toJSDate(this)},fromJSDate:function(t){return this._calendar.fromJSDate(t)},toString:function(){return(this.year()<0?\\\"-\\\":\\\"\\\")+o(Math.abs(this.year()),4)+\\\"-\\\"+o(this.month(),2)+\\\"-\\\"+o(this.day(),2)}}),n(s.prototype,{_validateLevel:0,newDate:function(t,e,r){return null==t?this.today():(t.year&&(this._validate(t,e,r,c.local.invalidDate||c.regionalOptions[\\\"\\\"].invalidDate),r=t.day(),e=t.month(),t=t.year()),new a(this,t,e,r))},today:function(){return this.fromJSDate(new Date)},epoch:function(t){return this._validate(t,this.minMonth,this.minDay,c.local.invalidYear||c.regionalOptions[\\\"\\\"].invalidYear).year()<0?this.local.epochs[0]:this.local.epochs[1]},formatYear:function(t){var e=this._validate(t,this.minMonth,this.minDay,c.local.invalidYear||c.regionalOptions[\\\"\\\"].invalidYear);return(e.year()<0?\\\"-\\\":\\\"\\\")+o(Math.abs(e.year()),4)},monthsInYear:function(t){return this._validate(t,this.minMonth,this.minDay,c.local.invalidYear||c.regionalOptions[\\\"\\\"].invalidYear),12},monthOfYear:function(t,e){var r=this._validate(t,e,this.minDay,c.local.invalidMonth||c.regionalOptions[\\\"\\\"].invalidMonth);return(r.month()+this.monthsInYear(r)-this.firstMonth)%this.monthsInYear(r)+this.minMonth},fromMonthOfYear:function(t,e){var r=(e+this.firstMonth-2*this.minMonth)%this.monthsInYear(t)+this.minMonth;return this._validate(t,r,this.minDay,c.local.invalidMonth||c.regionalOptions[\\\"\\\"].invalidMonth),r},daysInYear:function(t){var e=this._validate(t,this.minMonth,this.minDay,c.local.invalidYear||c.regionalOptions[\\\"\\\"].invalidYear);return this.leapYear(e)?366:365},dayOfYear:function(t,e,r){var n=this._validate(t,e,r,c.local.invalidDate||c.regionalOptions[\\\"\\\"].invalidDate);return n.toJD()-this.newDate(n.year(),this.fromMonthOfYear(n.year(),this.minMonth),this.minDay).toJD()+1},daysInWeek:function(){return 7},dayOfWeek:function(t,e,r){var n=this._validate(t,e,r,c.local.invalidDate||c.regionalOptions[\\\"\\\"].invalidDate);return(Math.floor(this.toJD(n))+2)%this.daysInWeek()},extraInfo:function(t,e,r){return this._validate(t,e,r,c.local.invalidDate||c.regionalOptions[\\\"\\\"].invalidDate),{}},add:function(t,e,r){return this._validate(t,this.minMonth,this.minDay,c.local.invalidDate||c.regionalOptions[\\\"\\\"].invalidDate),this._correctAdd(t,this._add(t,e,r),e,r)},_add:function(t,e,r){if(this._validateLevel++,\\\"d\\\"===r||\\\"w\\\"===r){var n=t.toJD()+e*(\\\"w\\\"===r?this.daysInWeek():1),i=t.calendar().fromJD(n);return this._validateLevel--,[i.year(),i.month(),i.day()]}try{var a=t.year()+(\\\"y\\\"===r?e:0),o=t.monthOfYear()+(\\\"m\\\"===r?e:0);i=t.day();\\\"y\\\"===r?(t.month()!==this.fromMonthOfYear(a,o)&&(o=this.newDate(a,t.month(),this.minDay).monthOfYear()),o=Math.min(o,this.monthsInYear(a)),i=Math.min(i,this.daysInMonth(a,this.fromMonthOfYear(a,o)))):\\\"m\\\"===r&&(!function(t){for(;o<t.minMonth;)a--,o+=t.monthsInYear(a);for(var e=t.monthsInYear(a);o>e-1+t.minMonth;)a++,o-=e,e=t.monthsInYear(a)}(this),i=Math.min(i,this.daysInMonth(a,this.fromMonthOfYear(a,o))));var s=[a,this.fromMonthOfYear(a,o),i];return this._validateLevel--,s}catch(t){throw this._validateLevel--,t}},_correctAdd:function(t,e,r,n){if(!(this.hasYearZero||\\\"y\\\"!==n&&\\\"m\\\"!==n||0!==e[0]&&t.year()>0==e[0]>0)){var i={y:[1,1,\\\"y\\\"],m:[1,this.monthsInYear(-1),\\\"m\\\"],w:[this.daysInWeek(),this.daysInYear(-1),\\\"d\\\"],d:[1,this.daysInYear(-1),\\\"d\\\"]}[n],a=r<0?-1:1;e=this._add(t,r*i[0]+a*i[1],i[2])}return t.date(e[0],e[1],e[2])},set:function(t,e,r){this._validate(t,this.minMonth,this.minDay,c.local.invalidDate||c.regionalOptions[\\\"\\\"].invalidDate);var n=\\\"y\\\"===r?e:t.year(),i=\\\"m\\\"===r?e:t.month(),a=\\\"d\\\"===r?e:t.day();return\\\"y\\\"!==r&&\\\"m\\\"!==r||(a=Math.min(a,this.daysInMonth(n,i))),t.date(n,i,a)},isValid:function(t,e,r){this._validateLevel++;var n=this.hasYearZero||0!==t;if(n){var i=this.newDate(t,e,this.minDay);n=e>=this.minMonth&&e-this.minMonth<this.monthsInYear(i)&&r>=this.minDay&&r-this.minDay<this.daysInMonth(i)}return this._validateLevel--,n},toJSDate:function(t,e,r){var n=this._validate(t,e,r,c.local.invalidDate||c.regionalOptions[\\\"\\\"].invalidDate);return c.instance().fromJD(this.toJD(n)).toJSDate()},fromJSDate:function(t){return this.fromJD(c.instance().fromJSDate(t).toJD())},_validate:function(t,e,r,n){if(t.year){if(0===this._validateLevel&&this.name!==t.calendar().name)throw(c.local.differentCalendars||c.regionalOptions[\\\"\\\"].differentCalendars).replace(/\\\\{0\\\\}/,this.local.name).replace(/\\\\{1\\\\}/,t.calendar().local.name);return t}try{if(this._validateLevel++,1===this._validateLevel&&!this.isValid(t,e,r))throw n.replace(/\\\\{0\\\\}/,this.local.name);var i=this.newDate(t,e,r);return this._validateLevel--,i}catch(t){throw this._validateLevel--,t}}}),l.prototype=new s,n(l.prototype,{name:\\\"Gregorian\\\",jdEpoch:1721425.5,daysPerMonth:[31,28,31,30,31,30,31,31,30,31,30,31],hasYearZero:!1,minMonth:1,firstMonth:1,minDay:1,regionalOptions:{\\\"\\\":{name:\\\"Gregorian\\\",epochs:[\\\"BCE\\\",\\\"CE\\\"],monthNames:[\\\"January\\\",\\\"February\\\",\\\"March\\\",\\\"April\\\",\\\"May\\\",\\\"June\\\",\\\"July\\\",\\\"August\\\",\\\"September\\\",\\\"October\\\",\\\"November\\\",\\\"December\\\"],monthNamesShort:[\\\"Jan\\\",\\\"Feb\\\",\\\"Mar\\\",\\\"Apr\\\",\\\"May\\\",\\\"Jun\\\",\\\"Jul\\\",\\\"Aug\\\",\\\"Sep\\\",\\\"Oct\\\",\\\"Nov\\\",\\\"Dec\\\"],dayNames:[\\\"Sunday\\\",\\\"Monday\\\",\\\"Tuesday\\\",\\\"Wednesday\\\",\\\"Thursday\\\",\\\"Friday\\\",\\\"Saturday\\\"],dayNamesShort:[\\\"Sun\\\",\\\"Mon\\\",\\\"Tue\\\",\\\"Wed\\\",\\\"Thu\\\",\\\"Fri\\\",\\\"Sat\\\"],dayNamesMin:[\\\"Su\\\",\\\"Mo\\\",\\\"Tu\\\",\\\"We\\\",\\\"Th\\\",\\\"Fr\\\",\\\"Sa\\\"],digits:null,dateFormat:\\\"mm/dd/yyyy\\\",firstDay:0,isRTL:!1}},leapYear:function(t){var e=this._validate(t,this.minMonth,this.minDay,c.local.invalidYear||c.regionalOptions[\\\"\\\"].invalidYear);return(t=e.year()+(e.year()<0?1:0))%4==0&&(t%100!=0||t%400==0)},weekOfYear:function(t,e,r){var n=this.newDate(t,e,r);return n.add(4-(n.dayOfWeek()||7),\\\"d\\\"),Math.floor((n.dayOfYear()-1)/7)+1},daysInMonth:function(t,e){var r=this._validate(t,e,this.minDay,c.local.invalidMonth||c.regionalOptions[\\\"\\\"].invalidMonth);return this.daysPerMonth[r.month()-1]+(2===r.month()&&this.leapYear(r.year())?1:0)},weekDay:function(t,e,r){return(this.dayOfWeek(t,e,r)||7)<6},toJD:function(t,e,r){var n=this._validate(t,e,r,c.local.invalidDate||c.regionalOptions[\\\"\\\"].invalidDate);t=n.year(),e=n.month(),r=n.day(),t<0&&t++,e<3&&(e+=12,t--);var i=Math.floor(t/100),a=2-i+Math.floor(i/4);return Math.floor(365.25*(t+4716))+Math.floor(30.6001*(e+1))+r+a-1524.5},fromJD:function(t){var e=Math.floor(t+.5),r=Math.floor((e-1867216.25)/36524.25),n=(r=e+1+r-Math.floor(r/4))+1524,i=Math.floor((n-122.1)/365.25),a=Math.floor(365.25*i),o=Math.floor((n-a)/30.6001),s=n-a-Math.floor(30.6001*o),l=o-(o>13.5?13:1),c=i-(l>2.5?4716:4715);return c<=0&&c--,this.newDate(c,l,s)},toJSDate:function(t,e,r){var n=this._validate(t,e,r,c.local.invalidDate||c.regionalOptions[\\\"\\\"].invalidDate),i=new Date(n.year(),n.month()-1,n.day());return i.setHours(0),i.setMinutes(0),i.setSeconds(0),i.setMilliseconds(0),i.setHours(i.getHours()>12?i.getHours()+2:0),i},fromJSDate:function(t){return this.newDate(t.getFullYear(),t.getMonth()+1,t.getDate())}});var c=e.exports=new i;c.cdate=a,c.baseCalendar=s,c.calendars.gregorian=l},{\\\"object-assign\\\":449}],559:[function(t,e,r){var n=t(\\\"object-assign\\\"),i=t(\\\"./main\\\");n(i.regionalOptions[\\\"\\\"],{invalidArguments:\\\"Invalid arguments\\\",invalidFormat:\\\"Cannot format a date from another calendar\\\",missingNumberAt:\\\"Missing number at position {0}\\\",unknownNameAt:\\\"Unknown name at position {0}\\\",unexpectedLiteralAt:\\\"Unexpected literal at position {0}\\\",unexpectedText:\\\"Additional text found at end\\\"}),i.local=i.regionalOptions[\\\"\\\"],n(i.cdate.prototype,{formatDate:function(t,e){return\\\"string\\\"!=typeof t&&(e=t,t=\\\"\\\"),this._calendar.formatDate(t||\\\"\\\",this,e)}}),n(i.baseCalendar.prototype,{UNIX_EPOCH:i.instance().newDate(1970,1,1).toJD(),SECS_PER_DAY:86400,TICKS_EPOCH:i.instance().jdEpoch,TICKS_PER_DAY:864e9,ATOM:\\\"yyyy-mm-dd\\\",COOKIE:\\\"D, dd M yyyy\\\",FULL:\\\"DD, MM d, yyyy\\\",ISO_8601:\\\"yyyy-mm-dd\\\",JULIAN:\\\"J\\\",RFC_822:\\\"D, d M yy\\\",RFC_850:\\\"DD, dd-M-yy\\\",RFC_1036:\\\"D, d M yy\\\",RFC_1123:\\\"D, d M yyyy\\\",RFC_2822:\\\"D, d M yyyy\\\",RSS:\\\"D, d M yy\\\",TICKS:\\\"!\\\",TIMESTAMP:\\\"@\\\",W3C:\\\"yyyy-mm-dd\\\",formatDate:function(t,e,r){if(\\\"string\\\"!=typeof t&&(r=e,e=t,t=\\\"\\\"),!e)return\\\"\\\";if(e.calendar()!==this)throw i.local.invalidFormat||i.regionalOptions[\\\"\\\"].invalidFormat;t=t||this.local.dateFormat;for(var n,a,o,s,l=(r=r||{}).dayNamesShort||this.local.dayNamesShort,c=r.dayNames||this.local.dayNames,u=r.monthNumbers||this.local.monthNumbers,f=r.monthNamesShort||this.local.monthNamesShort,h=r.monthNames||this.local.monthNames,p=(r.calculateWeek||this.local.calculateWeek,function(e,r){for(var n=1;w+n<t.length&&t.charAt(w+n)===e;)n++;return w+=n-1,Math.floor(n/(r||1))>1}),d=function(t,e,r,n){var i=\\\"\\\"+e;if(p(t,n))for(;i.length<r;)i=\\\"0\\\"+i;return i},g=this,v=function(t){return\\\"function\\\"==typeof u?u.call(g,t,p(\\\"m\\\")):x(d(\\\"m\\\",t.month(),2))},m=function(t,e){return e?\\\"function\\\"==typeof h?h.call(g,t):h[t.month()-g.minMonth]:\\\"function\\\"==typeof f?f.call(g,t):f[t.month()-g.minMonth]},y=this.local.digits,x=function(t){return r.localNumbers&&y?y(t):t},b=\\\"\\\",_=!1,w=0;w<t.length;w++)if(_)\\\"'\\\"!==t.charAt(w)||p(\\\"'\\\")?b+=t.charAt(w):_=!1;else switch(t.charAt(w)){case\\\"d\\\":b+=x(d(\\\"d\\\",e.day(),2));break;case\\\"D\\\":b+=(n=\\\"D\\\",a=e.dayOfWeek(),o=l,s=c,p(n)?s[a]:o[a]);break;case\\\"o\\\":b+=d(\\\"o\\\",e.dayOfYear(),3);break;case\\\"w\\\":b+=d(\\\"w\\\",e.weekOfYear(),2);break;case\\\"m\\\":b+=v(e);break;case\\\"M\\\":b+=m(e,p(\\\"M\\\"));break;case\\\"y\\\":b+=p(\\\"y\\\",2)?e.year():(e.year()%100<10?\\\"0\\\":\\\"\\\")+e.year()%100;break;case\\\"Y\\\":p(\\\"Y\\\",2),b+=e.formatYear();break;case\\\"J\\\":b+=e.toJD();break;case\\\"@\\\":b+=(e.toJD()-this.UNIX_EPOCH)*this.SECS_PER_DAY;break;case\\\"!\\\":b+=(e.toJD()-this.TICKS_EPOCH)*this.TICKS_PER_DAY;break;case\\\"'\\\":p(\\\"'\\\")?b+=\\\"'\\\":_=!0;break;default:b+=t.charAt(w)}return b},parseDate:function(t,e,r){if(null==e)throw i.local.invalidArguments||i.regionalOptions[\\\"\\\"].invalidArguments;if(\\\"\\\"===(e=\\\"object\\\"==typeof e?e.toString():e+\\\"\\\"))return null;t=t||this.local.dateFormat;var n=(r=r||{}).shortYearCutoff||this.shortYearCutoff;n=\\\"string\\\"!=typeof n?n:this.today().year()%100+parseInt(n,10);for(var a=r.dayNamesShort||this.local.dayNamesShort,o=r.dayNames||this.local.dayNames,s=r.parseMonth||this.local.parseMonth,l=r.monthNumbers||this.local.monthNumbers,c=r.monthNamesShort||this.local.monthNamesShort,u=r.monthNames||this.local.monthNames,f=-1,h=-1,p=-1,d=-1,g=-1,v=!1,m=!1,y=function(e,r){for(var n=1;M+n<t.length&&t.charAt(M+n)===e;)n++;return M+=n-1,Math.floor(n/(r||1))>1},x=function(t,r){var n=y(t,r),a=[2,3,n?4:2,n?4:2,10,11,20][\\\"oyYJ@!\\\".indexOf(t)+1],o=new RegExp(\\\"^-?\\\\\\\\d{1,\\\"+a+\\\"}\\\"),s=e.substring(A).match(o);if(!s)throw(i.local.missingNumberAt||i.regionalOptions[\\\"\\\"].missingNumberAt).replace(/\\\\{0\\\\}/,A);return A+=s[0].length,parseInt(s[0],10)},b=this,_=function(){if(\\\"function\\\"==typeof l){y(\\\"m\\\");var t=l.call(b,e.substring(A));return A+=t.length,t}return x(\\\"m\\\")},w=function(t,r,n,a){for(var o=y(t,a)?n:r,s=0;s<o.length;s++)if(e.substr(A,o[s].length).toLowerCase()===o[s].toLowerCase())return A+=o[s].length,s+b.minMonth;throw(i.local.unknownNameAt||i.regionalOptions[\\\"\\\"].unknownNameAt).replace(/\\\\{0\\\\}/,A)},k=function(){if(\\\"function\\\"==typeof u){var t=y(\\\"M\\\")?u.call(b,e.substring(A)):c.call(b,e.substring(A));return A+=t.length,t}return w(\\\"M\\\",c,u)},T=function(){if(e.charAt(A)!==t.charAt(M))throw(i.local.unexpectedLiteralAt||i.regionalOptions[\\\"\\\"].unexpectedLiteralAt).replace(/\\\\{0\\\\}/,A);A++},A=0,M=0;M<t.length;M++)if(m)\\\"'\\\"!==t.charAt(M)||y(\\\"'\\\")?T():m=!1;else switch(t.charAt(M)){case\\\"d\\\":d=x(\\\"d\\\");break;case\\\"D\\\":w(\\\"D\\\",a,o);break;case\\\"o\\\":g=x(\\\"o\\\");break;case\\\"w\\\":x(\\\"w\\\");break;case\\\"m\\\":p=_();break;case\\\"M\\\":p=k();break;case\\\"y\\\":var S=M;v=!y(\\\"y\\\",2),M=S,h=x(\\\"y\\\",2);break;case\\\"Y\\\":h=x(\\\"Y\\\",2);break;case\\\"J\\\":f=x(\\\"J\\\")+.5,\\\".\\\"===e.charAt(A)&&(A++,x(\\\"J\\\"));break;case\\\"@\\\":f=x(\\\"@\\\")/this.SECS_PER_DAY+this.UNIX_EPOCH;break;case\\\"!\\\":f=x(\\\"!\\\")/this.TICKS_PER_DAY+this.TICKS_EPOCH;break;case\\\"*\\\":A=e.length;break;case\\\"'\\\":y(\\\"'\\\")?T():m=!0;break;default:T()}if(A<e.length)throw i.local.unexpectedText||i.regionalOptions[\\\"\\\"].unexpectedText;if(-1===h?h=this.today().year():h<100&&v&&(h+=-1===n?1900:this.today().year()-this.today().year()%100-(h<=n?0:100)),\\\"string\\\"==typeof p&&(p=s.call(this,h,p)),g>-1){p=1,d=g;for(var E=this.daysInMonth(h,p);d>E;E=this.daysInMonth(h,p))p++,d-=E}return f>-1?this.fromJD(f):this.newDate(h,p,d)},determineDate:function(t,e,r,n,i){r&&\\\"object\\\"!=typeof r&&(i=n,n=r,r=null),\\\"string\\\"!=typeof n&&(i=n,n=\\\"\\\");var a=this;return e=e?e.newDate():null,t=null==t?e:\\\"string\\\"==typeof t?function(t){try{return a.parseDate(n,t,i)}catch(t){}for(var e=((t=t.toLowerCase()).match(/^c/)&&r?r.newDate():null)||a.today(),o=/([+-]?[0-9]+)\\\\s*(d|w|m|y)?/g,s=o.exec(t);s;)e.add(parseInt(s[1],10),s[2]||\\\"d\\\"),s=o.exec(t);return e}(t):\\\"number\\\"==typeof t?isNaN(t)||t===1/0||t===-1/0?e:a.today().add(t,\\\"d\\\"):a.newDate(t)}})},{\\\"./main\\\":558,\\\"object-assign\\\":449}],560:[function(t,e,r){e.exports=t(\\\"cwise-compiler\\\")({args:[\\\"array\\\",{offset:[1],array:0},\\\"scalar\\\",\\\"scalar\\\",\\\"index\\\"],pre:{body:\\\"{}\\\",args:[],thisVars:[],localVars:[]},post:{body:\\\"{}\\\",args:[],thisVars:[],localVars:[]},body:{body:\\\"{\\\\n        var _inline_1_da = _inline_1_arg0_ - _inline_1_arg3_\\\\n        var _inline_1_db = _inline_1_arg1_ - _inline_1_arg3_\\\\n        if((_inline_1_da >= 0) !== (_inline_1_db >= 0)) {\\\\n          _inline_1_arg2_.push(_inline_1_arg4_[0] + 0.5 + 0.5 * (_inline_1_da + _inline_1_db) / (_inline_1_da - _inline_1_db))\\\\n        }\\\\n      }\\\",args:[{name:\\\"_inline_1_arg0_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_1_arg1_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_1_arg2_\\\",lvalue:!1,rvalue:!0,count:1},{name:\\\"_inline_1_arg3_\\\",lvalue:!1,rvalue:!0,count:2},{name:\\\"_inline_1_arg4_\\\",lvalue:!1,rvalue:!0,count:1}],thisVars:[],localVars:[\\\"_inline_1_da\\\",\\\"_inline_1_db\\\"]},funcName:\\\"zeroCrossings\\\"})},{\\\"cwise-compiler\\\":139}],561:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){var r=[];return e=+e||0,n(t.hi(t.shape[0]-1),r,e),r};var n=t(\\\"./lib/zc-core\\\")},{\\\"./lib/zc-core\\\":560}],562:[function(t,e,r){\\\"use strict\\\";e.exports=[{path:\\\"\\\",backoff:0},{path:\\\"M-2.4,-3V3L0.6,0Z\\\",backoff:.6},{path:\\\"M-3.7,-2.5V2.5L1.3,0Z\\\",backoff:1.3},{path:\\\"M-4.45,-3L-1.65,-0.2V0.2L-4.45,3L1.55,0Z\\\",backoff:1.55},{path:\\\"M-2.2,-2.2L-0.2,-0.2V0.2L-2.2,2.2L-1.4,3L1.6,0L-1.4,-3Z\\\",backoff:1.6},{path:\\\"M-4.4,-2.1L-0.6,-0.2V0.2L-4.4,2.1L-4,3L2,0L-4,-3Z\\\",backoff:2},{path:\\\"M2,0A2,2 0 1,1 0,-2A2,2 0 0,1 2,0Z\\\",backoff:0,noRotate:!0},{path:\\\"M2,2V-2H-2V2Z\\\",backoff:0,noRotate:!0}]},{}],563:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./arrow_paths\\\"),i=t(\\\"../../plots/font_attributes\\\"),a=t(\\\"../../plots/cartesian/constants\\\"),o=t(\\\"../../plot_api/plot_template\\\").templatedArray;e.exports=o(\\\"annotation\\\",{visible:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc+arraydraw\\\"},text:{valType:\\\"string\\\",editType:\\\"calc+arraydraw\\\"},textangle:{valType:\\\"angle\\\",dflt:0,editType:\\\"calc+arraydraw\\\"},font:i({editType:\\\"calc+arraydraw\\\",colorEditType:\\\"arraydraw\\\"}),width:{valType:\\\"number\\\",min:1,dflt:null,editType:\\\"calc+arraydraw\\\"},height:{valType:\\\"number\\\",min:1,dflt:null,editType:\\\"calc+arraydraw\\\"},opacity:{valType:\\\"number\\\",min:0,max:1,dflt:1,editType:\\\"arraydraw\\\"},align:{valType:\\\"enumerated\\\",values:[\\\"left\\\",\\\"center\\\",\\\"right\\\"],dflt:\\\"center\\\",editType:\\\"arraydraw\\\"},valign:{valType:\\\"enumerated\\\",values:[\\\"top\\\",\\\"middle\\\",\\\"bottom\\\"],dflt:\\\"middle\\\",editType:\\\"arraydraw\\\"},bgcolor:{valType:\\\"color\\\",dflt:\\\"rgba(0,0,0,0)\\\",editType:\\\"arraydraw\\\"},bordercolor:{valType:\\\"color\\\",dflt:\\\"rgba(0,0,0,0)\\\",editType:\\\"arraydraw\\\"},borderpad:{valType:\\\"number\\\",min:0,dflt:1,editType:\\\"calc+arraydraw\\\"},borderwidth:{valType:\\\"number\\\",min:0,dflt:1,editType:\\\"calc+arraydraw\\\"},showarrow:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc+arraydraw\\\"},arrowcolor:{valType:\\\"color\\\",editType:\\\"arraydraw\\\"},arrowhead:{valType:\\\"integer\\\",min:0,max:n.length,dflt:1,editType:\\\"arraydraw\\\"},startarrowhead:{valType:\\\"integer\\\",min:0,max:n.length,dflt:1,editType:\\\"arraydraw\\\"},arrowside:{valType:\\\"flaglist\\\",flags:[\\\"end\\\",\\\"start\\\"],extras:[\\\"none\\\"],dflt:\\\"end\\\",editType:\\\"arraydraw\\\"},arrowsize:{valType:\\\"number\\\",min:.3,dflt:1,editType:\\\"calc+arraydraw\\\"},startarrowsize:{valType:\\\"number\\\",min:.3,dflt:1,editType:\\\"calc+arraydraw\\\"},arrowwidth:{valType:\\\"number\\\",min:.1,editType:\\\"calc+arraydraw\\\"},standoff:{valType:\\\"number\\\",min:0,dflt:0,editType:\\\"calc+arraydraw\\\"},startstandoff:{valType:\\\"number\\\",min:0,dflt:0,editType:\\\"calc+arraydraw\\\"},ax:{valType:\\\"any\\\",editType:\\\"calc+arraydraw\\\"},ay:{valType:\\\"any\\\",editType:\\\"calc+arraydraw\\\"},axref:{valType:\\\"enumerated\\\",dflt:\\\"pixel\\\",values:[\\\"pixel\\\",a.idRegex.x.toString()],editType:\\\"calc\\\"},ayref:{valType:\\\"enumerated\\\",dflt:\\\"pixel\\\",values:[\\\"pixel\\\",a.idRegex.y.toString()],editType:\\\"calc\\\"},xref:{valType:\\\"enumerated\\\",values:[\\\"paper\\\",a.idRegex.x.toString()],editType:\\\"calc\\\"},x:{valType:\\\"any\\\",editType:\\\"calc+arraydraw\\\"},xanchor:{valType:\\\"enumerated\\\",values:[\\\"auto\\\",\\\"left\\\",\\\"center\\\",\\\"right\\\"],dflt:\\\"auto\\\",editType:\\\"calc+arraydraw\\\"},xshift:{valType:\\\"number\\\",dflt:0,editType:\\\"calc+arraydraw\\\"},yref:{valType:\\\"enumerated\\\",values:[\\\"paper\\\",a.idRegex.y.toString()],editType:\\\"calc\\\"},y:{valType:\\\"any\\\",editType:\\\"calc+arraydraw\\\"},yanchor:{valType:\\\"enumerated\\\",values:[\\\"auto\\\",\\\"top\\\",\\\"middle\\\",\\\"bottom\\\"],dflt:\\\"auto\\\",editType:\\\"calc+arraydraw\\\"},yshift:{valType:\\\"number\\\",dflt:0,editType:\\\"calc+arraydraw\\\"},clicktoshow:{valType:\\\"enumerated\\\",values:[!1,\\\"onoff\\\",\\\"onout\\\"],dflt:!1,editType:\\\"arraydraw\\\"},xclick:{valType:\\\"any\\\",editType:\\\"arraydraw\\\"},yclick:{valType:\\\"any\\\",editType:\\\"arraydraw\\\"},hovertext:{valType:\\\"string\\\",editType:\\\"arraydraw\\\"},hoverlabel:{bgcolor:{valType:\\\"color\\\",editType:\\\"arraydraw\\\"},bordercolor:{valType:\\\"color\\\",editType:\\\"arraydraw\\\"},font:i({editType:\\\"arraydraw\\\"}),editType:\\\"arraydraw\\\"},captureevents:{valType:\\\"boolean\\\",editType:\\\"arraydraw\\\"},editType:\\\"calc\\\",_deprecated:{ref:{valType:\\\"string\\\",editType:\\\"calc\\\"}}})},{\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/cartesian/constants\\\":757,\\\"../../plots/font_attributes\\\":777,\\\"./arrow_paths\\\":562}],564:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plots/cartesian/axes\\\"),a=t(\\\"./draw\\\").draw;function o(t){var e=t._fullLayout;n.filterVisible(e.annotations).forEach(function(e){var r=i.getFromId(t,e.xref),n=i.getFromId(t,e.yref);e._extremes={},r&&s(e,r),n&&s(e,n)})}function s(t,e){var r,n=e._id,a=n.charAt(0),o=t[a],s=t[\\\"a\\\"+a],l=t[a+\\\"ref\\\"],c=t[\\\"a\\\"+a+\\\"ref\\\"],u=t[\\\"_\\\"+a+\\\"padplus\\\"],f=t[\\\"_\\\"+a+\\\"padminus\\\"],h={x:1,y:-1}[a]*t[a+\\\"shift\\\"],p=3*t.arrowsize*t.arrowwidth||0,d=p+h,g=p-h,v=3*t.startarrowsize*t.arrowwidth||0,m=v+h,y=v-h;if(c===l){var x=i.findExtremes(e,[e.r2c(o)],{ppadplus:d,ppadminus:g}),b=i.findExtremes(e,[e.r2c(s)],{ppadplus:Math.max(u,m),ppadminus:Math.max(f,y)});r={min:[x.min[0],b.min[0]],max:[x.max[0],b.max[0]]}}else m=s?m+s:m,y=s?y-s:y,r=i.findExtremes(e,[e.r2c(o)],{ppadplus:Math.max(u,d,m),ppadminus:Math.max(f,g,y)});t._extremes[n]=r}e.exports=function(t){var e=t._fullLayout;if(n.filterVisible(e.annotations).length&&t._fullData.length)return n.syncOrAsync([a,o],t)}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"./draw\\\":569}],565:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"../../plot_api/plot_template\\\").arrayEditor;function o(t,e){var r,n,i,a,o,l,c,u=t._fullLayout.annotations,f=[],h=[],p=[],d=(e||[]).length;for(r=0;r<u.length;r++)if(a=(i=u[r]).clicktoshow){for(n=0;n<d;n++)if(l=(o=e[n]).xaxis,c=o.yaxis,l._id===i.xref&&c._id===i.yref&&l.d2r(o.x)===s(i._xclick,l)&&c.d2r(o.y)===s(i._yclick,c)){(i.visible?\\\"onout\\\"===a?h:p:f).push(r);break}n===d&&i.visible&&\\\"onout\\\"===a&&h.push(r)}return{on:f,off:h,explicitOff:p}}function s(t,e){return\\\"log\\\"===e.type?e.l2r(t):e.d2r(t)}e.exports={hasClickToShow:function(t,e){var r=o(t,e);return r.on.length>0||r.explicitOff.length>0},onClick:function(t,e){var r,s,l=o(t,e),c=l.on,u=l.off.concat(l.explicitOff),f={},h=t._fullLayout.annotations;if(!c.length&&!u.length)return;for(r=0;r<c.length;r++)(s=a(t.layout,\\\"annotations\\\",h[c[r]])).modifyItem(\\\"visible\\\",!0),n.extendFlat(f,s.getUpdateObj());for(r=0;r<u.length;r++)(s=a(t.layout,\\\"annotations\\\",h[u[r]])).modifyItem(\\\"visible\\\",!1),n.extendFlat(f,s.getUpdateObj());return i.call(\\\"update\\\",t,{},f)}}},{\\\"../../lib\\\":703,\\\"../../plot_api/plot_template\\\":741,\\\"../../registry\\\":831}],566:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../color\\\");e.exports=function(t,e,r,a){a(\\\"opacity\\\");var o=a(\\\"bgcolor\\\"),s=a(\\\"bordercolor\\\"),l=i.opacity(s);a(\\\"borderpad\\\");var c=a(\\\"borderwidth\\\"),u=a(\\\"showarrow\\\");if(a(\\\"text\\\",u?\\\" \\\":r._dfltTitle.annotation),a(\\\"textangle\\\"),n.coerceFont(a,\\\"font\\\",r.font),a(\\\"width\\\"),a(\\\"align\\\"),a(\\\"height\\\")&&a(\\\"valign\\\"),u){var f,h,p=a(\\\"arrowside\\\");-1!==p.indexOf(\\\"end\\\")&&(f=a(\\\"arrowhead\\\"),h=a(\\\"arrowsize\\\")),-1!==p.indexOf(\\\"start\\\")&&(a(\\\"startarrowhead\\\",f),a(\\\"startarrowsize\\\",h)),a(\\\"arrowcolor\\\",l?e.bordercolor:i.defaultLine),a(\\\"arrowwidth\\\",2*(l&&c||1)),a(\\\"standoff\\\"),a(\\\"startstandoff\\\")}var d=a(\\\"hovertext\\\"),g=r.hoverlabel||{};if(d){var v=a(\\\"hoverlabel.bgcolor\\\",g.bgcolor||(i.opacity(o)?i.rgb(o):i.defaultLine)),m=a(\\\"hoverlabel.bordercolor\\\",g.bordercolor||i.contrast(v));n.coerceFont(a,\\\"hoverlabel.font\\\",{family:g.font.family,size:g.font.size,color:g.font.color||m})}a(\\\"captureevents\\\",!!d)}},{\\\"../../lib\\\":703,\\\"../color\\\":580}],567:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../lib/to_log_range\\\");e.exports=function(t,e,r,a){e=e||{};var o=\\\"log\\\"===r&&\\\"linear\\\"===e.type,s=\\\"linear\\\"===r&&\\\"log\\\"===e.type;if(o||s)for(var l,c,u=t._fullLayout.annotations,f=e._id.charAt(0),h=0;h<u.length;h++)l=u[h],c=\\\"annotations[\\\"+h+\\\"].\\\",l[f+\\\"ref\\\"]===e._id&&p(f),l[\\\"a\\\"+f+\\\"ref\\\"]===e._id&&p(\\\"a\\\"+f);function p(t){var r=l[t],s=null;s=o?i(r,e.range):Math.pow(10,r),n(s)||(s=null),a(c+t,s)}}},{\\\"../../lib/to_log_range\\\":729,\\\"fast-isnumeric\\\":224}],568:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plots/cartesian/axes\\\"),a=t(\\\"../../plots/array_container_defaults\\\"),o=t(\\\"./common_defaults\\\"),s=t(\\\"./attributes\\\");function l(t,e,r){function a(r,i){return n.coerce(t,e,s,r,i)}var l=a(\\\"visible\\\"),c=a(\\\"clicktoshow\\\");if(l||c){o(t,e,r,a);for(var u=e.showarrow,f=[\\\"x\\\",\\\"y\\\"],h=[-10,-30],p={_fullLayout:r},d=0;d<2;d++){var g=f[d],v=i.coerceRef(t,e,p,g,\\\"\\\",\\\"paper\\\");if(\\\"paper\\\"!==v)i.getFromId(p,v)._annIndices.push(e._index);if(i.coercePosition(e,p,a,v,g,.5),u){var m=\\\"a\\\"+g,y=i.coerceRef(t,e,p,m,\\\"pixel\\\");\\\"pixel\\\"!==y&&y!==v&&(y=e[m]=\\\"pixel\\\");var x=\\\"pixel\\\"===y?h[d]:.4;i.coercePosition(e,p,a,y,m,x)}a(g+\\\"anchor\\\"),a(g+\\\"shift\\\")}if(n.noneOrAll(t,e,[\\\"x\\\",\\\"y\\\"]),u&&n.noneOrAll(t,e,[\\\"ax\\\",\\\"ay\\\"]),c){var b=a(\\\"xclick\\\"),_=a(\\\"yclick\\\");e._xclick=void 0===b?e.x:i.cleanPosition(b,p,e.xref),e._yclick=void 0===_?e.y:i.cleanPosition(_,p,e.yref)}}}e.exports=function(t,e){a(t,e,{name:\\\"annotations\\\",handleItemDefaults:l})}},{\\\"../../lib\\\":703,\\\"../../plots/array_container_defaults\\\":747,\\\"../../plots/cartesian/axes\\\":751,\\\"./attributes\\\":563,\\\"./common_defaults\\\":566}],569:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"../../plots/plots\\\"),o=t(\\\"../../lib\\\"),s=t(\\\"../../plots/cartesian/axes\\\"),l=t(\\\"../color\\\"),c=t(\\\"../drawing\\\"),u=t(\\\"../fx\\\"),f=t(\\\"../../lib/svg_text_utils\\\"),h=t(\\\"../../lib/setcursor\\\"),p=t(\\\"../dragelement\\\"),d=t(\\\"../../plot_api/plot_template\\\").arrayEditor,g=t(\\\"./draw_arrow_head\\\");function v(t,e){var r=t._fullLayout.annotations[e]||{},n=s.getFromId(t,r.xref),i=s.getFromId(t,r.yref);n&&n.setScale(),i&&i.setScale(),m(t,r,e,!1,n,i)}function m(t,e,r,a,s,v){var m,y,x=t._fullLayout,b=t._fullLayout._size,_=t._context.edits;a?(m=\\\"annotation-\\\"+a,y=a+\\\".annotations\\\"):(m=\\\"annotation\\\",y=\\\"annotations\\\");var w=d(t.layout,y,e),k=w.modifyBase,T=w.modifyItem,A=w.getUpdateObj;x._infolayer.selectAll(\\\".\\\"+m+'[data-index=\\\"'+r+'\\\"]').remove();var M=\\\"clip\\\"+x._uid+\\\"_ann\\\"+r;if(e._input&&!1!==e.visible){var S={x:{},y:{}},E=+e.textangle||0,C=x._infolayer.append(\\\"g\\\").classed(m,!0).attr(\\\"data-index\\\",String(r)).style(\\\"opacity\\\",e.opacity),L=C.append(\\\"g\\\").classed(\\\"annotation-text-g\\\",!0),z=_[e.showarrow?\\\"annotationTail\\\":\\\"annotationPosition\\\"],O=e.captureevents||_.annotationText||z,I=L.append(\\\"g\\\").style(\\\"pointer-events\\\",O?\\\"all\\\":null).call(h,\\\"pointer\\\").on(\\\"click\\\",function(){t._dragging=!1;var i={index:r,annotation:e._input,fullAnnotation:e,event:n.event};a&&(i.subplotId=a),t.emit(\\\"plotly_clickannotation\\\",i)});e.hovertext&&I.on(\\\"mouseover\\\",function(){var r=e.hoverlabel,n=r.font,i=this.getBoundingClientRect(),a=t.getBoundingClientRect();u.loneHover({x0:i.left-a.left,x1:i.right-a.left,y:(i.top+i.bottom)/2-a.top,text:e.hovertext,color:r.bgcolor,borderColor:r.bordercolor,fontFamily:n.family,fontSize:n.size,fontColor:n.color},{container:x._hoverlayer.node(),outerContainer:x._paper.node(),gd:t})}).on(\\\"mouseout\\\",function(){u.loneUnhover(x._hoverlayer.node())});var D=e.borderwidth,P=e.borderpad,R=D+P,F=I.append(\\\"rect\\\").attr(\\\"class\\\",\\\"bg\\\").style(\\\"stroke-width\\\",D+\\\"px\\\").call(l.stroke,e.bordercolor).call(l.fill,e.bgcolor),B=e.width||e.height,N=x._topclips.selectAll(\\\"#\\\"+M).data(B?[0]:[]);N.enter().append(\\\"clipPath\\\").classed(\\\"annclip\\\",!0).attr(\\\"id\\\",M).append(\\\"rect\\\"),N.exit().remove();var j=e.font,V=x._meta?o.templateString(e.text,x._meta):e.text,U=I.append(\\\"text\\\").classed(\\\"annotation-text\\\",!0).text(V);_.annotationText?U.call(f.makeEditable,{delegate:I,gd:t}).call(H).on(\\\"edit\\\",function(r){e.text=r,this.call(H),T(\\\"text\\\",r),s&&s.autorange&&k(s._name+\\\".autorange\\\",!0),v&&v.autorange&&k(v._name+\\\".autorange\\\",!0),i.call(\\\"_guiRelayout\\\",t,A())}):U.call(H)}else n.selectAll(\\\"#\\\"+M).remove();function H(r){return r.call(c.font,j).attr({\\\"text-anchor\\\":{left:\\\"start\\\",right:\\\"end\\\"}[e.align]||\\\"middle\\\"}),f.convertToTspans(r,t,q),r}function q(){var r=U.selectAll(\\\"a\\\");1===r.size()&&r.text()===U.text()&&I.insert(\\\"a\\\",\\\":first-child\\\").attr({\\\"xlink:xlink:href\\\":r.attr(\\\"xlink:href\\\"),\\\"xlink:xlink:show\\\":r.attr(\\\"xlink:show\\\")}).style({cursor:\\\"pointer\\\"}).node().appendChild(F.node());var n=I.select(\\\".annotation-text-math-group\\\"),u=!n.empty(),d=c.bBox((u?n:U).node()),m=d.width,y=d.height,w=e.width||m,O=e.height||y,P=Math.round(w+2*R),j=Math.round(O+2*R);function V(t,e){return\\\"auto\\\"===e&&(e=t<1/3?\\\"left\\\":t>2/3?\\\"right\\\":\\\"center\\\"),{center:0,middle:0,left:.5,bottom:-.5,right:-.5,top:.5}[e]}for(var H=!1,q=[\\\"x\\\",\\\"y\\\"],G=0;G<q.length;G++){var Y,W,X,Z,$,J=q[G],K=e[J+\\\"ref\\\"]||J,Q=e[\\\"a\\\"+J+\\\"ref\\\"],tt={x:s,y:v}[J],et=(E+(\\\"x\\\"===J?0:-90))*Math.PI/180,rt=P*Math.cos(et),nt=j*Math.sin(et),it=Math.abs(rt)+Math.abs(nt),at=e[J+\\\"anchor\\\"],ot=e[J+\\\"shift\\\"]*(\\\"x\\\"===J?1:-1),st=S[J];if(tt){var lt=tt.r2fraction(e[J]);(lt<0||lt>1)&&(Q===K?((lt=tt.r2fraction(e[\\\"a\\\"+J]))<0||lt>1)&&(H=!0):H=!0),Y=tt._offset+tt.r2p(e[J]),Z=.5}else\\\"x\\\"===J?(X=e[J],Y=b.l+b.w*X):(X=1-e[J],Y=b.t+b.h*X),Z=e.showarrow?.5:X;if(e.showarrow){st.head=Y;var ct=e[\\\"a\\\"+J];$=rt*V(.5,e.xanchor)-nt*V(.5,e.yanchor),Q===K?(st.tail=tt._offset+tt.r2p(ct),W=$):(st.tail=Y+ct,W=$+ct),st.text=st.tail+$;var ut=x[\\\"x\\\"===J?\\\"width\\\":\\\"height\\\"];if(\\\"paper\\\"===K&&(st.head=o.constrain(st.head,1,ut-1)),\\\"pixel\\\"===Q){var ft=-Math.max(st.tail-3,st.text),ht=Math.min(st.tail+3,st.text)-ut;ft>0?(st.tail+=ft,st.text+=ft):ht>0&&(st.tail-=ht,st.text-=ht)}st.tail+=ot,st.head+=ot}else W=$=it*V(Z,at),st.text=Y+$;st.text+=ot,$+=ot,W+=ot,e[\\\"_\\\"+J+\\\"padplus\\\"]=it/2+W,e[\\\"_\\\"+J+\\\"padminus\\\"]=it/2-W,e[\\\"_\\\"+J+\\\"size\\\"]=it,e[\\\"_\\\"+J+\\\"shift\\\"]=$}if(t._dragging||!H){var pt=0,dt=0;if(\\\"left\\\"!==e.align&&(pt=(w-m)*(\\\"center\\\"===e.align?.5:1)),\\\"top\\\"!==e.valign&&(dt=(O-y)*(\\\"middle\\\"===e.valign?.5:1)),u)n.select(\\\"svg\\\").attr({x:R+pt-1,y:R+dt}).call(c.setClipUrl,B?M:null,t);else{var gt=R+dt-d.top,vt=R+pt-d.left;U.call(f.positionText,vt,gt).call(c.setClipUrl,B?M:null,t)}N.select(\\\"rect\\\").call(c.setRect,R,R,w,O),F.call(c.setRect,D/2,D/2,P-D,j-D),I.call(c.setTranslate,Math.round(S.x.text-P/2),Math.round(S.y.text-j/2)),L.attr({transform:\\\"rotate(\\\"+E+\\\",\\\"+S.x.text+\\\",\\\"+S.y.text+\\\")\\\"});var mt,yt=function(r,n){C.selectAll(\\\".annotation-arrow-g\\\").remove();var u=S.x.head,f=S.y.head,h=S.x.tail+r,d=S.y.tail+n,m=S.x.text+r,y=S.y.text+n,x=o.rotationXYMatrix(E,m,y),w=o.apply2DTransform(x),M=o.apply2DTransform2(x),z=+F.attr(\\\"width\\\"),O=+F.attr(\\\"height\\\"),D=m-.5*z,P=D+z,R=y-.5*O,B=R+O,N=[[D,R,D,B],[D,B,P,B],[P,B,P,R],[P,R,D,R]].map(M);if(!N.reduce(function(t,e){return t^!!o.segmentsIntersect(u,f,u+1e6,f+1e6,e[0],e[1],e[2],e[3])},!1)){N.forEach(function(t){var e=o.segmentsIntersect(h,d,u,f,t[0],t[1],t[2],t[3]);e&&(h=e.x,d=e.y)});var j=e.arrowwidth,V=e.arrowcolor,U=e.arrowside,H=C.append(\\\"g\\\").style({opacity:l.opacity(V)}).classed(\\\"annotation-arrow-g\\\",!0),q=H.append(\\\"path\\\").attr(\\\"d\\\",\\\"M\\\"+h+\\\",\\\"+d+\\\"L\\\"+u+\\\",\\\"+f).style(\\\"stroke-width\\\",j+\\\"px\\\").call(l.stroke,l.rgb(V));if(g(q,U,e),_.annotationPosition&&q.node().parentNode&&!a){var G=u,Y=f;if(e.standoff){var W=Math.sqrt(Math.pow(u-h,2)+Math.pow(f-d,2));G+=e.standoff*(h-u)/W,Y+=e.standoff*(d-f)/W}var X,Z,$=H.append(\\\"path\\\").classed(\\\"annotation-arrow\\\",!0).classed(\\\"anndrag\\\",!0).classed(\\\"cursor-move\\\",!0).attr({d:\\\"M3,3H-3V-3H3ZM0,0L\\\"+(h-G)+\\\",\\\"+(d-Y),transform:\\\"translate(\\\"+G+\\\",\\\"+Y+\\\")\\\"}).style(\\\"stroke-width\\\",j+6+\\\"px\\\").call(l.stroke,\\\"rgba(0,0,0,0)\\\").call(l.fill,\\\"rgba(0,0,0,0)\\\");p.init({element:$.node(),gd:t,prepFn:function(){var t=c.getTranslate(I);X=t.x,Z=t.y,s&&s.autorange&&k(s._name+\\\".autorange\\\",!0),v&&v.autorange&&k(v._name+\\\".autorange\\\",!0)},moveFn:function(t,r){var n=w(X,Z),i=n[0]+t,a=n[1]+r;I.call(c.setTranslate,i,a),T(\\\"x\\\",s?s.p2r(s.r2p(e.x)+t):e.x+t/b.w),T(\\\"y\\\",v?v.p2r(v.r2p(e.y)+r):e.y-r/b.h),e.axref===e.xref&&T(\\\"ax\\\",s.p2r(s.r2p(e.ax)+t)),e.ayref===e.yref&&T(\\\"ay\\\",v.p2r(v.r2p(e.ay)+r)),H.attr(\\\"transform\\\",\\\"translate(\\\"+t+\\\",\\\"+r+\\\")\\\"),L.attr({transform:\\\"rotate(\\\"+E+\\\",\\\"+i+\\\",\\\"+a+\\\")\\\"})},doneFn:function(){i.call(\\\"_guiRelayout\\\",t,A());var e=document.querySelector(\\\".js-notes-box-panel\\\");e&&e.redraw(e.selectedObj)}})}}};if(e.showarrow&&yt(0,0),z)p.init({element:I.node(),gd:t,prepFn:function(){mt=L.attr(\\\"transform\\\")},moveFn:function(t,r){var n=\\\"pointer\\\";if(e.showarrow)e.axref===e.xref?T(\\\"ax\\\",s.p2r(s.r2p(e.ax)+t)):T(\\\"ax\\\",e.ax+t),e.ayref===e.yref?T(\\\"ay\\\",v.p2r(v.r2p(e.ay)+r)):T(\\\"ay\\\",e.ay+r),yt(t,r);else{if(a)return;var i,o;if(s)i=s.p2r(s.r2p(e.x)+t);else{var l=e._xsize/b.w,c=e.x+(e._xshift-e.xshift)/b.w-l/2;i=p.align(c+t/b.w,l,0,1,e.xanchor)}if(v)o=v.p2r(v.r2p(e.y)+r);else{var u=e._ysize/b.h,f=e.y-(e._yshift+e.yshift)/b.h-u/2;o=p.align(f-r/b.h,u,0,1,e.yanchor)}T(\\\"x\\\",i),T(\\\"y\\\",o),s&&v||(n=p.getCursor(s?.5:i,v?.5:o,e.xanchor,e.yanchor))}L.attr({transform:\\\"translate(\\\"+t+\\\",\\\"+r+\\\")\\\"+mt}),h(I,n)},doneFn:function(){h(I),i.call(\\\"_guiRelayout\\\",t,A());var e=document.querySelector(\\\".js-notes-box-panel\\\");e&&e.redraw(e.selectedObj)}})}else I.remove()}}e.exports={draw:function(t){var e=t._fullLayout;e._infolayer.selectAll(\\\".annotation\\\").remove();for(var r=0;r<e.annotations.length;r++)e.annotations[r].visible&&v(t,r);return a.previousPromises(t)},drawOne:v,drawRaw:m}},{\\\"../../lib\\\":703,\\\"../../lib/setcursor\\\":723,\\\"../../lib/svg_text_utils\\\":727,\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/cartesian/axes\\\":751,\\\"../../plots/plots\\\":812,\\\"../../registry\\\":831,\\\"../color\\\":580,\\\"../dragelement\\\":598,\\\"../drawing\\\":601,\\\"../fx\\\":619,\\\"./draw_arrow_head\\\":570,d3:157}],570:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../color\\\"),a=t(\\\"./arrow_paths\\\");e.exports=function(t,e,r){var o,s,l,c,u=t.node(),f=a[r.arrowhead||0],h=a[r.startarrowhead||0],p=(r.arrowwidth||1)*(r.arrowsize||1),d=(r.arrowwidth||1)*(r.startarrowsize||1),g=e.indexOf(\\\"start\\\")>=0,v=e.indexOf(\\\"end\\\")>=0,m=f.backoff*p+r.standoff,y=h.backoff*d+r.startstandoff;if(\\\"line\\\"===u.nodeName){o={x:+t.attr(\\\"x1\\\"),y:+t.attr(\\\"y1\\\")},s={x:+t.attr(\\\"x2\\\"),y:+t.attr(\\\"y2\\\")};var x=o.x-s.x,b=o.y-s.y;if(c=(l=Math.atan2(b,x))+Math.PI,m&&y&&m+y>Math.sqrt(x*x+b*b))return void z();if(m){if(m*m>x*x+b*b)return void z();var _=m*Math.cos(l),w=m*Math.sin(l);s.x+=_,s.y+=w,t.attr({x2:s.x,y2:s.y})}if(y){if(y*y>x*x+b*b)return void z();var k=y*Math.cos(l),T=y*Math.sin(l);o.x-=k,o.y-=T,t.attr({x1:o.x,y1:o.y})}}else if(\\\"path\\\"===u.nodeName){var A=u.getTotalLength(),M=\\\"\\\";if(A<m+y)return void z();var S=u.getPointAtLength(0),E=u.getPointAtLength(.1);l=Math.atan2(S.y-E.y,S.x-E.x),o=u.getPointAtLength(Math.min(y,A)),M=\\\"0px,\\\"+y+\\\"px,\\\";var C=u.getPointAtLength(A),L=u.getPointAtLength(A-.1);c=Math.atan2(C.y-L.y,C.x-L.x),s=u.getPointAtLength(Math.max(0,A-m)),M+=A-(M?y+m:m)+\\\"px,\\\"+A+\\\"px\\\",t.style(\\\"stroke-dasharray\\\",M)}function z(){t.style(\\\"stroke-dasharray\\\",\\\"0px,100px\\\")}function O(e,a,o,s){e.path&&(e.noRotate&&(o=0),n.select(u.parentNode).append(\\\"path\\\").attr({class:t.attr(\\\"class\\\"),d:e.path,transform:\\\"translate(\\\"+a.x+\\\",\\\"+a.y+\\\")\\\"+(o?\\\"rotate(\\\"+180*o/Math.PI+\\\")\\\":\\\"\\\")+\\\"scale(\\\"+s+\\\")\\\"}).style({fill:i.rgb(r.arrowcolor),\\\"stroke-width\\\":0}))}g&&O(h,o,l,d),v&&O(f,s,c,p)}},{\\\"../color\\\":580,\\\"./arrow_paths\\\":562,d3:157}],571:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./draw\\\"),i=t(\\\"./click\\\");e.exports={moduleType:\\\"component\\\",name:\\\"annotations\\\",layoutAttributes:t(\\\"./attributes\\\"),supplyLayoutDefaults:t(\\\"./defaults\\\"),includeBasePlot:t(\\\"../../plots/cartesian/include_components\\\")(\\\"annotations\\\"),calcAutorange:t(\\\"./calc_autorange\\\"),draw:n.draw,drawOne:n.drawOne,drawRaw:n.drawRaw,hasClickToShow:i.hasClickToShow,onClick:i.onClick,convertCoords:t(\\\"./convert_coords\\\")}},{\\\"../../plots/cartesian/include_components\\\":761,\\\"./attributes\\\":563,\\\"./calc_autorange\\\":564,\\\"./click\\\":565,\\\"./convert_coords\\\":567,\\\"./defaults\\\":568,\\\"./draw\\\":569}],572:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../annotations/attributes\\\"),i=t(\\\"../../plot_api/edit_types\\\").overrideAll,a=t(\\\"../../plot_api/plot_template\\\").templatedArray;e.exports=i(a(\\\"annotation\\\",{visible:n.visible,x:{valType:\\\"any\\\"},y:{valType:\\\"any\\\"},z:{valType:\\\"any\\\"},ax:{valType:\\\"number\\\"},ay:{valType:\\\"number\\\"},xanchor:n.xanchor,xshift:n.xshift,yanchor:n.yanchor,yshift:n.yshift,text:n.text,textangle:n.textangle,font:n.font,width:n.width,height:n.height,opacity:n.opacity,align:n.align,valign:n.valign,bgcolor:n.bgcolor,bordercolor:n.bordercolor,borderpad:n.borderpad,borderwidth:n.borderwidth,showarrow:n.showarrow,arrowcolor:n.arrowcolor,arrowhead:n.arrowhead,startarrowhead:n.startarrowhead,arrowside:n.arrowside,arrowsize:n.arrowsize,startarrowsize:n.startarrowsize,arrowwidth:n.arrowwidth,standoff:n.standoff,startstandoff:n.startstandoff,hovertext:n.hovertext,hoverlabel:n.hoverlabel,captureevents:n.captureevents}),\\\"calc\\\",\\\"from-root\\\")},{\\\"../../plot_api/edit_types\\\":734,\\\"../../plot_api/plot_template\\\":741,\\\"../annotations/attributes\\\":563}],573:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plots/cartesian/axes\\\");function a(t,e){var r=e.fullSceneLayout.domain,a=e.fullLayout._size,o={pdata:null,type:\\\"linear\\\",autorange:!1,range:[-1/0,1/0]};t._xa={},n.extendFlat(t._xa,o),i.setConvert(t._xa),t._xa._offset=a.l+r.x[0]*a.w,t._xa.l2p=function(){return.5*(1+t._pdata[0]/t._pdata[3])*a.w*(r.x[1]-r.x[0])},t._ya={},n.extendFlat(t._ya,o),i.setConvert(t._ya),t._ya._offset=a.t+(1-r.y[1])*a.h,t._ya.l2p=function(){return.5*(1-t._pdata[1]/t._pdata[3])*a.h*(r.y[1]-r.y[0])}}e.exports=function(t){for(var e=t.fullSceneLayout.annotations,r=0;r<e.length;r++)a(e[r],t);t.fullLayout._infolayer.selectAll(\\\".annotation-\\\"+t.id).remove()}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751}],574:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plots/cartesian/axes\\\"),a=t(\\\"../../plots/array_container_defaults\\\"),o=t(\\\"../annotations/common_defaults\\\"),s=t(\\\"./attributes\\\");function l(t,e,r,a){function l(r,i){return n.coerce(t,e,s,r,i)}function c(t){var n=t+\\\"axis\\\",a={_fullLayout:{}};return a._fullLayout[n]=r[n],i.coercePosition(e,a,l,t,t,.5)}l(\\\"visible\\\")&&(o(t,e,a.fullLayout,l),c(\\\"x\\\"),c(\\\"y\\\"),c(\\\"z\\\"),n.noneOrAll(t,e,[\\\"x\\\",\\\"y\\\",\\\"z\\\"]),e.xref=\\\"x\\\",e.yref=\\\"y\\\",e.zref=\\\"z\\\",l(\\\"xanchor\\\"),l(\\\"yanchor\\\"),l(\\\"xshift\\\"),l(\\\"yshift\\\"),e.showarrow&&(e.axref=\\\"pixel\\\",e.ayref=\\\"pixel\\\",l(\\\"ax\\\",-10),l(\\\"ay\\\",-30),n.noneOrAll(t,e,[\\\"ax\\\",\\\"ay\\\"])))}e.exports=function(t,e,r){a(t,e,{name:\\\"annotations\\\",handleItemDefaults:l,fullLayout:r.fullLayout})}},{\\\"../../lib\\\":703,\\\"../../plots/array_container_defaults\\\":747,\\\"../../plots/cartesian/axes\\\":751,\\\"../annotations/common_defaults\\\":566,\\\"./attributes\\\":572}],575:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../annotations/draw\\\").drawRaw,i=t(\\\"../../plots/gl3d/project\\\"),a=[\\\"x\\\",\\\"y\\\",\\\"z\\\"];e.exports=function(t){for(var e=t.fullSceneLayout,r=t.dataScale,o=e.annotations,s=0;s<o.length;s++){for(var l=o[s],c=!1,u=0;u<3;u++){var f=a[u],h=l[f],p=e[f+\\\"axis\\\"].r2fraction(h);if(p<0||p>1){c=!0;break}}c?t.fullLayout._infolayer.select(\\\".annotation-\\\"+t.id+'[data-index=\\\"'+s+'\\\"]').remove():(l._pdata=i(t.glplot.cameraParams,[e.xaxis.r2l(l.x)*r[0],e.yaxis.r2l(l.y)*r[1],e.zaxis.r2l(l.z)*r[2]]),n(t.graphDiv,l,s,t.id,l._xa,l._ya))}}},{\\\"../../plots/gl3d/project\\\":800,\\\"../annotations/draw\\\":569}],576:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../lib\\\");e.exports={moduleType:\\\"component\\\",name:\\\"annotations3d\\\",schema:{subplots:{scene:{annotations:t(\\\"./attributes\\\")}}},layoutAttributes:t(\\\"./attributes\\\"),handleDefaults:t(\\\"./defaults\\\"),includeBasePlot:function(t,e){var r=n.subplotsRegistry.gl3d;if(!r)return;for(var a=r.attrRegex,o=Object.keys(t),s=0;s<o.length;s++){var l=o[s];a.test(l)&&(t[l].annotations||[]).length&&(i.pushUnique(e._basePlotModules,r),i.pushUnique(e._subplots.gl3d,l))}},convert:t(\\\"./convert\\\"),draw:t(\\\"./draw\\\")}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"./attributes\\\":572,\\\"./convert\\\":573,\\\"./defaults\\\":574,\\\"./draw\\\":575}],577:[function(t,e,r){\\\"use strict\\\";e.exports=t(\\\"world-calendars/dist/main\\\"),t(\\\"world-calendars/dist/plus\\\"),t(\\\"world-calendars/dist/calendars/chinese\\\"),t(\\\"world-calendars/dist/calendars/coptic\\\"),t(\\\"world-calendars/dist/calendars/discworld\\\"),t(\\\"world-calendars/dist/calendars/ethiopian\\\"),t(\\\"world-calendars/dist/calendars/hebrew\\\"),t(\\\"world-calendars/dist/calendars/islamic\\\"),t(\\\"world-calendars/dist/calendars/julian\\\"),t(\\\"world-calendars/dist/calendars/mayan\\\"),t(\\\"world-calendars/dist/calendars/nanakshahi\\\"),t(\\\"world-calendars/dist/calendars/nepali\\\"),t(\\\"world-calendars/dist/calendars/persian\\\"),t(\\\"world-calendars/dist/calendars/taiwan\\\"),t(\\\"world-calendars/dist/calendars/thai\\\"),t(\\\"world-calendars/dist/calendars/ummalqura\\\")},{\\\"world-calendars/dist/calendars/chinese\\\":544,\\\"world-calendars/dist/calendars/coptic\\\":545,\\\"world-calendars/dist/calendars/discworld\\\":546,\\\"world-calendars/dist/calendars/ethiopian\\\":547,\\\"world-calendars/dist/calendars/hebrew\\\":548,\\\"world-calendars/dist/calendars/islamic\\\":549,\\\"world-calendars/dist/calendars/julian\\\":550,\\\"world-calendars/dist/calendars/mayan\\\":551,\\\"world-calendars/dist/calendars/nanakshahi\\\":552,\\\"world-calendars/dist/calendars/nepali\\\":553,\\\"world-calendars/dist/calendars/persian\\\":554,\\\"world-calendars/dist/calendars/taiwan\\\":555,\\\"world-calendars/dist/calendars/thai\\\":556,\\\"world-calendars/dist/calendars/ummalqura\\\":557,\\\"world-calendars/dist/main\\\":558,\\\"world-calendars/dist/plus\\\":559}],578:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./calendars\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../constants/numerical\\\"),o=a.EPOCHJD,s=a.ONEDAY,l={valType:\\\"enumerated\\\",values:Object.keys(n.calendars),editType:\\\"calc\\\",dflt:\\\"gregorian\\\"},c=function(t,e,r,n){var a={};return a[r]=l,i.coerce(t,e,a,r,n)},u=\\\"##\\\",f={d:{0:\\\"dd\\\",\\\"-\\\":\\\"d\\\"},e:{0:\\\"d\\\",\\\"-\\\":\\\"d\\\"},a:{0:\\\"D\\\",\\\"-\\\":\\\"D\\\"},A:{0:\\\"DD\\\",\\\"-\\\":\\\"DD\\\"},j:{0:\\\"oo\\\",\\\"-\\\":\\\"o\\\"},W:{0:\\\"ww\\\",\\\"-\\\":\\\"w\\\"},m:{0:\\\"mm\\\",\\\"-\\\":\\\"m\\\"},b:{0:\\\"M\\\",\\\"-\\\":\\\"M\\\"},B:{0:\\\"MM\\\",\\\"-\\\":\\\"MM\\\"},y:{0:\\\"yy\\\",\\\"-\\\":\\\"yy\\\"},Y:{0:\\\"yyyy\\\",\\\"-\\\":\\\"yyyy\\\"},U:u,w:u,c:{0:\\\"D M d %X yyyy\\\",\\\"-\\\":\\\"D M d %X yyyy\\\"},x:{0:\\\"mm/dd/yyyy\\\",\\\"-\\\":\\\"mm/dd/yyyy\\\"}};var h={};function p(t){var e=h[t];return e||(e=h[t]=n.instance(t))}function d(t){return i.extendFlat({},l,{description:t})}function g(t){return\\\"Sets the calendar system to use with `\\\"+t+\\\"` date data.\\\"}var v={xcalendar:d(g(\\\"x\\\"))},m=i.extendFlat({},v,{ycalendar:d(g(\\\"y\\\"))}),y=i.extendFlat({},m,{zcalendar:d(g(\\\"z\\\"))}),x=d([\\\"Sets the calendar system to use for `range` and `tick0`\\\",\\\"if this is a date axis. This does not set the calendar for\\\",\\\"interpreting data on this axis, that's specified in the trace\\\",\\\"or via the global `layout.calendar`\\\"].join(\\\" \\\"));e.exports={moduleType:\\\"component\\\",name:\\\"calendars\\\",schema:{traces:{scatter:m,bar:m,box:m,heatmap:m,contour:m,histogram:m,histogram2d:m,histogram2dcontour:m,scatter3d:y,surface:y,mesh3d:y,scattergl:m,ohlc:v,candlestick:v},layout:{calendar:d([\\\"Sets the default calendar system to use for interpreting and\\\",\\\"displaying dates throughout the plot.\\\"].join(\\\" \\\"))},subplots:{xaxis:{calendar:x},yaxis:{calendar:x},scene:{xaxis:{calendar:x},yaxis:{calendar:x},zaxis:{calendar:x}},polar:{radialaxis:{calendar:x}}},transforms:{filter:{valuecalendar:d([\\\"Sets the calendar system to use for `value`, if it is a date.\\\"].join(\\\" \\\")),targetcalendar:d([\\\"Sets the calendar system to use for `target`, if it is an\\\",\\\"array of dates. If `target` is a string (eg *x*) we use the\\\",\\\"corresponding trace attribute (eg `xcalendar`) if it exists,\\\",\\\"even if `targetcalendar` is provided.\\\"].join(\\\" \\\"))}}},layoutAttributes:l,handleDefaults:c,handleTraceDefaults:function(t,e,r,n){for(var i=0;i<r.length;i++)c(t,e,r[i]+\\\"calendar\\\",n.calendar)},CANONICAL_SUNDAY:{chinese:\\\"2000-01-02\\\",coptic:\\\"2000-01-03\\\",discworld:\\\"2000-01-03\\\",ethiopian:\\\"2000-01-05\\\",hebrew:\\\"5000-01-01\\\",islamic:\\\"1000-01-02\\\",julian:\\\"2000-01-03\\\",mayan:\\\"5000-01-01\\\",nanakshahi:\\\"1000-01-05\\\",nepali:\\\"2000-01-05\\\",persian:\\\"1000-01-01\\\",jalali:\\\"1000-01-01\\\",taiwan:\\\"1000-01-04\\\",thai:\\\"2000-01-04\\\",ummalqura:\\\"1400-01-06\\\"},CANONICAL_TICK:{chinese:\\\"2000-01-01\\\",coptic:\\\"2000-01-01\\\",discworld:\\\"2000-01-01\\\",ethiopian:\\\"2000-01-01\\\",hebrew:\\\"5000-01-01\\\",islamic:\\\"1000-01-01\\\",julian:\\\"2000-01-01\\\",mayan:\\\"5000-01-01\\\",nanakshahi:\\\"1000-01-01\\\",nepali:\\\"2000-01-01\\\",persian:\\\"1000-01-01\\\",jalali:\\\"1000-01-01\\\",taiwan:\\\"1000-01-01\\\",thai:\\\"2000-01-01\\\",ummalqura:\\\"1400-01-01\\\"},DFLTRANGE:{chinese:[\\\"2000-01-01\\\",\\\"2001-01-01\\\"],coptic:[\\\"1700-01-01\\\",\\\"1701-01-01\\\"],discworld:[\\\"1800-01-01\\\",\\\"1801-01-01\\\"],ethiopian:[\\\"2000-01-01\\\",\\\"2001-01-01\\\"],hebrew:[\\\"5700-01-01\\\",\\\"5701-01-01\\\"],islamic:[\\\"1400-01-01\\\",\\\"1401-01-01\\\"],julian:[\\\"2000-01-01\\\",\\\"2001-01-01\\\"],mayan:[\\\"5200-01-01\\\",\\\"5201-01-01\\\"],nanakshahi:[\\\"0500-01-01\\\",\\\"0501-01-01\\\"],nepali:[\\\"2000-01-01\\\",\\\"2001-01-01\\\"],persian:[\\\"1400-01-01\\\",\\\"1401-01-01\\\"],jalali:[\\\"1400-01-01\\\",\\\"1401-01-01\\\"],taiwan:[\\\"0100-01-01\\\",\\\"0101-01-01\\\"],thai:[\\\"2500-01-01\\\",\\\"2501-01-01\\\"],ummalqura:[\\\"1400-01-01\\\",\\\"1401-01-01\\\"]},getCal:p,worldCalFmt:function(t,e,r){for(var n,i,a,l,c,h=Math.floor((e+.05)/s)+o,d=p(r).fromJD(h),g=0;-1!==(g=t.indexOf(\\\"%\\\",g));)\\\"0\\\"===(n=t.charAt(g+1))||\\\"-\\\"===n||\\\"_\\\"===n?(a=3,i=t.charAt(g+2),\\\"_\\\"===n&&(n=\\\"-\\\")):(i=n,n=\\\"0\\\",a=2),(l=f[i])?(c=l===u?u:d.formatDate(l[n]),t=t.substr(0,g)+c+t.substr(g+a),g+=c.length):g+=a;return t}}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"./calendars\\\":577}],579:[function(t,e,r){\\\"use strict\\\";r.defaults=[\\\"#1f77b4\\\",\\\"#ff7f0e\\\",\\\"#2ca02c\\\",\\\"#d62728\\\",\\\"#9467bd\\\",\\\"#8c564b\\\",\\\"#e377c2\\\",\\\"#7f7f7f\\\",\\\"#bcbd22\\\",\\\"#17becf\\\"],r.defaultLine=\\\"#444\\\",r.lightLine=\\\"#eee\\\",r.background=\\\"#fff\\\",r.borderLine=\\\"#BEC8D9\\\",r.lightFraction=1e3/11},{}],580:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"tinycolor2\\\"),i=t(\\\"fast-isnumeric\\\"),a=e.exports={},o=t(\\\"./attributes\\\");a.defaults=o.defaults;var s=a.defaultLine=o.defaultLine;a.lightLine=o.lightLine;var l=a.background=o.background;function c(t){if(i(t)||\\\"string\\\"!=typeof t)return t;var e=t.trim();if(\\\"rgb\\\"!==e.substr(0,3))return t;var r=e.match(/^rgba?\\\\s*\\\\(([^()]*)\\\\)$/);if(!r)return t;var n=r[1].trim().split(/\\\\s*[\\\\s,]\\\\s*/),a=\\\"a\\\"===e.charAt(3)&&4===n.length;if(!a&&3!==n.length)return t;for(var o=0;o<n.length;o++){if(!n[o].length)return t;if(n[o]=Number(n[o]),!(n[o]>=0))return t;if(3===o)n[o]>1&&(n[o]=1);else if(n[o]>=1)return t}var s=Math.round(255*n[0])+\\\", \\\"+Math.round(255*n[1])+\\\", \\\"+Math.round(255*n[2]);return a?\\\"rgba(\\\"+s+\\\", \\\"+n[3]+\\\")\\\":\\\"rgb(\\\"+s+\\\")\\\"}a.tinyRGB=function(t){var e=t.toRgb();return\\\"rgb(\\\"+Math.round(e.r)+\\\", \\\"+Math.round(e.g)+\\\", \\\"+Math.round(e.b)+\\\")\\\"},a.rgb=function(t){return a.tinyRGB(n(t))},a.opacity=function(t){return t?n(t).getAlpha():0},a.addOpacity=function(t,e){var r=n(t).toRgb();return\\\"rgba(\\\"+Math.round(r.r)+\\\", \\\"+Math.round(r.g)+\\\", \\\"+Math.round(r.b)+\\\", \\\"+e+\\\")\\\"},a.combine=function(t,e){var r=n(t).toRgb();if(1===r.a)return n(t).toRgbString();var i=n(e||l).toRgb(),a=1===i.a?i:{r:255*(1-i.a)+i.r*i.a,g:255*(1-i.a)+i.g*i.a,b:255*(1-i.a)+i.b*i.a},o={r:a.r*(1-r.a)+r.r*r.a,g:a.g*(1-r.a)+r.g*r.a,b:a.b*(1-r.a)+r.b*r.a};return n(o).toRgbString()},a.contrast=function(t,e,r){var i=n(t);return 1!==i.getAlpha()&&(i=n(a.combine(t,l))),(i.isDark()?e?i.lighten(e):l:r?i.darken(r):s).toString()},a.stroke=function(t,e){var r=n(e);t.style({stroke:a.tinyRGB(r),\\\"stroke-opacity\\\":r.getAlpha()})},a.fill=function(t,e){var r=n(e);t.style({fill:a.tinyRGB(r),\\\"fill-opacity\\\":r.getAlpha()})},a.clean=function(t){if(t&&\\\"object\\\"==typeof t){var e,r,n,i,o=Object.keys(t);for(e=0;e<o.length;e++)if(i=t[n=o[e]],\\\"color\\\"===n.substr(n.length-5))if(Array.isArray(i))for(r=0;r<i.length;r++)i[r]=c(i[r]);else t[n]=c(i);else if(\\\"colorscale\\\"===n.substr(n.length-10)&&Array.isArray(i))for(r=0;r<i.length;r++)Array.isArray(i[r])&&(i[r][1]=c(i[r][1]));else if(Array.isArray(i)){var s=i[0];if(!Array.isArray(s)&&s&&\\\"object\\\"==typeof s)for(r=0;r<i.length;r++)a.clean(i[r])}else i&&\\\"object\\\"==typeof i&&a.clean(i)}}},{\\\"./attributes\\\":579,\\\"fast-isnumeric\\\":224,tinycolor2:524}],581:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/layout_attributes\\\"),i=t(\\\"../../plots/font_attributes\\\"),a=t(\\\"../../lib/extend\\\").extendFlat,o=t(\\\"../../plot_api/edit_types\\\").overrideAll;e.exports=o({thicknessmode:{valType:\\\"enumerated\\\",values:[\\\"fraction\\\",\\\"pixels\\\"],dflt:\\\"pixels\\\"},thickness:{valType:\\\"number\\\",min:0,dflt:30},lenmode:{valType:\\\"enumerated\\\",values:[\\\"fraction\\\",\\\"pixels\\\"],dflt:\\\"fraction\\\"},len:{valType:\\\"number\\\",min:0,dflt:1},x:{valType:\\\"number\\\",dflt:1.02,min:-2,max:3},xanchor:{valType:\\\"enumerated\\\",values:[\\\"left\\\",\\\"center\\\",\\\"right\\\"],dflt:\\\"left\\\"},xpad:{valType:\\\"number\\\",min:0,dflt:10},y:{valType:\\\"number\\\",dflt:.5,min:-2,max:3},yanchor:{valType:\\\"enumerated\\\",values:[\\\"top\\\",\\\"middle\\\",\\\"bottom\\\"],dflt:\\\"middle\\\"},ypad:{valType:\\\"number\\\",min:0,dflt:10},outlinecolor:n.linecolor,outlinewidth:n.linewidth,bordercolor:n.linecolor,borderwidth:{valType:\\\"number\\\",min:0,dflt:0},bgcolor:{valType:\\\"color\\\",dflt:\\\"rgba(0,0,0,0)\\\"},tickmode:n.tickmode,nticks:n.nticks,tick0:n.tick0,dtick:n.dtick,tickvals:n.tickvals,ticktext:n.ticktext,ticks:a({},n.ticks,{dflt:\\\"\\\"}),ticklen:n.ticklen,tickwidth:n.tickwidth,tickcolor:n.tickcolor,showticklabels:n.showticklabels,tickfont:i({}),tickangle:n.tickangle,tickformat:n.tickformat,tickformatstops:n.tickformatstops,tickprefix:n.tickprefix,showtickprefix:n.showtickprefix,ticksuffix:n.ticksuffix,showticksuffix:n.showticksuffix,separatethousands:n.separatethousands,exponentformat:n.exponentformat,showexponent:n.showexponent,title:{text:{valType:\\\"string\\\"},font:i({}),side:{valType:\\\"enumerated\\\",values:[\\\"right\\\",\\\"top\\\",\\\"bottom\\\"],dflt:\\\"top\\\"}},_deprecated:{title:{valType:\\\"string\\\"},titlefont:i({}),titleside:{valType:\\\"enumerated\\\",values:[\\\"right\\\",\\\"top\\\",\\\"bottom\\\"],dflt:\\\"top\\\"}}},\\\"colorbars\\\",\\\"from-root\\\")},{\\\"../../lib/extend\\\":693,\\\"../../plot_api/edit_types\\\":734,\\\"../../plots/cartesian/layout_attributes\\\":763,\\\"../../plots/font_attributes\\\":777}],582:[function(t,e,r){\\\"use strict\\\";e.exports={cn:{colorbar:\\\"colorbar\\\",cbbg:\\\"cbbg\\\",cbfill:\\\"cbfill\\\",cbfills:\\\"cbfills\\\",cbline:\\\"cbline\\\",cblines:\\\"cblines\\\",cbaxis:\\\"cbaxis\\\",cbtitleunshift:\\\"cbtitleunshift\\\",cbtitle:\\\"cbtitle\\\",cboutline:\\\"cboutline\\\",crisp:\\\"crisp\\\",jsPlaceholder:\\\"js-placeholder\\\"}}},{}],583:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plot_api/plot_template\\\"),a=t(\\\"../../plots/cartesian/tick_value_defaults\\\"),o=t(\\\"../../plots/cartesian/tick_mark_defaults\\\"),s=t(\\\"../../plots/cartesian/tick_label_defaults\\\"),l=t(\\\"./attributes\\\");e.exports=function(t,e,r){var c=i.newContainer(e,\\\"colorbar\\\"),u=t.colorbar||{};function f(t,e){return n.coerce(u,c,l,t,e)}var h=f(\\\"thicknessmode\\\");f(\\\"thickness\\\",\\\"fraction\\\"===h?30/(r.width-r.margin.l-r.margin.r):30);var p=f(\\\"lenmode\\\");f(\\\"len\\\",\\\"fraction\\\"===p?1:r.height-r.margin.t-r.margin.b),f(\\\"x\\\"),f(\\\"xanchor\\\"),f(\\\"xpad\\\"),f(\\\"y\\\"),f(\\\"yanchor\\\"),f(\\\"ypad\\\"),n.noneOrAll(u,c,[\\\"x\\\",\\\"y\\\"]),f(\\\"outlinecolor\\\"),f(\\\"outlinewidth\\\"),f(\\\"bordercolor\\\"),f(\\\"borderwidth\\\"),f(\\\"bgcolor\\\"),a(u,c,f,\\\"linear\\\");var d={outerTicks:!1,font:r.font};s(u,c,f,\\\"linear\\\",d),o(u,c,f,\\\"linear\\\",d),f(\\\"title.text\\\",r._dfltTitle.colorbar),n.coerceFont(f,\\\"title.font\\\",r.font),f(\\\"title.side\\\")}},{\\\"../../lib\\\":703,\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/cartesian/tick_label_defaults\\\":770,\\\"../../plots/cartesian/tick_mark_defaults\\\":771,\\\"../../plots/cartesian/tick_value_defaults\\\":772,\\\"./attributes\\\":581}],584:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"tinycolor2\\\"),a=t(\\\"../../plots/plots\\\"),o=t(\\\"../../registry\\\"),s=t(\\\"../../plots/cartesian/axes\\\"),l=t(\\\"../dragelement\\\"),c=t(\\\"../../lib\\\"),u=t(\\\"../../lib/extend\\\").extendFlat,f=t(\\\"../../lib/setcursor\\\"),h=t(\\\"../drawing\\\"),p=t(\\\"../color\\\"),d=t(\\\"../titles\\\"),g=t(\\\"../../lib/svg_text_utils\\\"),v=t(\\\"../colorscale/helpers\\\").flipScale,m=t(\\\"../../plots/cartesian/axis_defaults\\\"),y=t(\\\"../../plots/cartesian/position_defaults\\\"),x=t(\\\"../../plots/cartesian/layout_attributes\\\"),b=t(\\\"../../constants/alignment\\\"),_=b.LINE_SPACING,w=b.FROM_TL,k=b.FROM_BR,T=t(\\\"./constants\\\").cn;e.exports={draw:function(t){var e=t._fullLayout._infolayer.selectAll(\\\"g.\\\"+T.colorbar).data(function(t){var e,r,n,i,a=t._fullLayout,o=t.calcdata,s=[];function l(t){return u(t,{_fillcolor:null,_line:{color:null,width:null,dash:null},_levels:{start:null,end:null,size:null},_filllevels:null,_fillgradient:null,_zrange:null})}function c(){\\\"function\\\"==typeof i.calc?i.calc(t,n,e):(e._fillgradient=r.reversescale?v(r.colorscale):r.colorscale,e._zrange=[r[i.min],r[i.max]])}for(var f=0;f<o.length;f++){var h=o[f],p=(n=h[0].trace)._module.colorbar;if(!0===n.visible&&p)for(var d=Array.isArray(p),g=d?p:[p],m=0;m<g.length;m++){var y=(i=g[m]).container;(r=y?n[y]:n)&&r.showscale&&((e=l(r.colorbar))._id=\\\"cb\\\"+n.uid+(d&&y?\\\"-\\\"+y:\\\"\\\"),e._traceIndex=n.index,e._propPrefix=(y?y+\\\".\\\":\\\"\\\")+\\\"colorbar.\\\",e._meta=n._meta,c(),s.push(e))}}for(var x in a._colorAxes)if((r=a[x]).showscale){var b=a._colorAxes[x];(e=l(r.colorbar))._id=\\\"cb\\\"+x,e._propPrefix=x+\\\".colorbar.\\\",e._meta=a._meta,i={min:\\\"cmin\\\",max:\\\"cmax\\\"},\\\"heatmap\\\"!==b[0]&&(n=b[1],i.calc=n._module.colorbar.calc),c(),s.push(e)}return s}(t),function(t){return t._id});e.enter().append(\\\"g\\\").attr(\\\"class\\\",function(t){return t._id}).classed(T.colorbar,!0),e.each(function(e){var r=n.select(this);c.ensureSingle(r,\\\"rect\\\",T.cbbg),c.ensureSingle(r,\\\"g\\\",T.cbfills),c.ensureSingle(r,\\\"g\\\",T.cblines),c.ensureSingle(r,\\\"g\\\",T.cbaxis,function(t){t.classed(T.crisp,!0)}),c.ensureSingle(r,\\\"g\\\",T.cbtitleunshift,function(t){t.append(\\\"g\\\").classed(T.cbtitle,!0)}),c.ensureSingle(r,\\\"rect\\\",T.cboutline);var v=function(t,e,r){var o=r._fullLayout,l=o._size,f=e._fillcolor,v=e._line,b=e.title,A=b.side,M=e._zrange||n.extent((\\\"function\\\"==typeof f?f:v.color).domain()),S=\\\"function\\\"==typeof v.color?v.color:function(){return v.color},E=\\\"function\\\"==typeof f?f:function(){return f},C=e._levels,L=function(t,e,r){var n,i,a=e._levels,o=[],s=[],l=a.end+a.size/100,c=a.size,u=1.001*r[0]-.001*r[1],f=1.001*r[1]-.001*r[0];for(i=0;i<1e5&&(n=a.start+i*c,!(c>0?n>=l:n<=l));i++)n>u&&n<f&&o.push(n);if(e._fillgradient)s=[0];else if(\\\"function\\\"==typeof e._fillcolor){var h=e._filllevels;if(h)for(l=h.end+h.size/100,c=h.size,i=0;i<1e5&&(n=h.start+i*c,!(c>0?n>=l:n<=l));i++)n>r[0]&&n<r[1]&&s.push(n);else(s=o.map(function(t){return t-a.size/2})).push(s[s.length-1]+a.size)}else e._fillcolor&&\\\"string\\\"==typeof e._fillcolor&&(s=[0]);return a.size<0&&(o.reverse(),s.reverse()),{line:o,fill:s}}(0,e,M),z=L.fill,O=L.line,I=Math.round(e.thickness*(\\\"fraction\\\"===e.thicknessmode?l.w:1)),D=I/l.w,P=Math.round(e.len*(\\\"fraction\\\"===e.lenmode?l.h:1)),R=P/l.h,F=e.xpad/l.w,B=(e.borderwidth+e.outlinewidth)/2,N=e.ypad/l.h,j=Math.round(e.x*l.w+e.xpad),V=e.x-D*({middle:.5,right:1}[e.xanchor]||0),U=e.y+R*(({top:-.5,bottom:.5}[e.yanchor]||0)-.5),H=Math.round(l.h*(1-U)),q=H-P;e._lenFrac=R,e._thickFrac=D,e._xLeftFrac=V,e._yBottomFrac=U;var G=function(t,e,r){var n=t._fullLayout,i={type:\\\"linear\\\",range:r,tickmode:e.tickmode,nticks:e.nticks,tick0:e.tick0,dtick:e.dtick,tickvals:e.tickvals,ticktext:e.ticktext,ticks:e.ticks,ticklen:e.ticklen,tickwidth:e.tickwidth,tickcolor:e.tickcolor,showticklabels:e.showticklabels,tickfont:e.tickfont,tickangle:e.tickangle,tickformat:e.tickformat,exponentformat:e.exponentformat,separatethousands:e.separatethousands,showexponent:e.showexponent,showtickprefix:e.showtickprefix,tickprefix:e.tickprefix,showticksuffix:e.showticksuffix,ticksuffix:e.ticksuffix,title:e.title,showline:!0,anchor:\\\"free\\\",side:\\\"right\\\",position:1},a={type:\\\"linear\\\",_id:\\\"y\\\"+e._id},o={letter:\\\"y\\\",font:n.font,noHover:!0,noTickson:!0,calendar:n.calendar};function s(t,e){return c.coerce(i,a,x,t,e)}return m(i,a,s,o,n),y(i,a,s,o),a}(r,e,M);if(G.position=e.x+F+D,-1!==[\\\"top\\\",\\\"bottom\\\"].indexOf(A)&&(G.title.side=A,G.titlex=e.x+F,G.titley=U+(\\\"top\\\"===b.side?R-N:N)),v.color&&\\\"auto\\\"===e.tickmode){G.tickmode=\\\"linear\\\",G.tick0=C.start;var Y=C.size,W=c.constrain((H-q)/50,4,15)+1,X=(M[1]-M[0])/((e.nticks||W)*Y);if(X>1){var Z=Math.pow(10,Math.floor(Math.log(X)/Math.LN10));Y*=Z*c.roundUp(X/Z,[2,5,10]),(Math.abs(C.start)/C.size+1e-6)%1<2e-6&&(G.tick0=0)}G.dtick=Y}G.domain=[U+N,U+R-N],G.setScale(),t.attr(\\\"transform\\\",\\\"translate(\\\"+Math.round(l.l)+\\\",\\\"+Math.round(l.t)+\\\")\\\");var $,J=t.select(\\\".\\\"+T.cbtitleunshift).attr(\\\"transform\\\",\\\"translate(-\\\"+Math.round(l.l)+\\\",-\\\"+Math.round(l.t)+\\\")\\\"),K=t.select(\\\".\\\"+T.cbaxis),Q=0;function tt(n,i){var a={propContainer:G,propName:e._propPrefix+\\\"title\\\",traceIndex:e._traceIndex,_meta:e._meta,placeholder:o._dfltTitle.colorbar,containerGroup:t.select(\\\".\\\"+T.cbtitle)},s=\\\"h\\\"===n.charAt(0)?n.substr(1):\\\"h\\\"+n;t.selectAll(\\\".\\\"+s+\\\",.\\\"+s+\\\"-math-group\\\").remove(),d.draw(r,n,u(a,i||{}))}return c.syncOrAsync([a.previousPromises,function(){if(-1!==[\\\"top\\\",\\\"bottom\\\"].indexOf(A)){var t,r=l.l+(e.x+F)*l.w,n=G.title.font.size;t=\\\"top\\\"===A?(1-(U+R-N))*l.h+l.t+3+.75*n:(1-(U+N))*l.h+l.t-3-.25*n,tt(G._id+\\\"title\\\",{attributes:{x:r,y:t,\\\"text-anchor\\\":\\\"start\\\"}})}},function(){if(-1!==[\\\"top\\\",\\\"bottom\\\"].indexOf(A)){var a=t.select(\\\".\\\"+T.cbtitle),o=a.select(\\\"text\\\"),u=[-e.outlinewidth/2,e.outlinewidth/2],f=a.select(\\\".h\\\"+G._id+\\\"title-math-group\\\").node(),p=15.6;if(o.node()&&(p=parseInt(o.node().style.fontSize,10)*_),f?(Q=h.bBox(f).height)>p&&(u[1]-=(Q-p)/2):o.node()&&!o.classed(T.jsPlaceholder)&&(Q=h.bBox(o.node()).height),Q){if(Q+=5,\\\"top\\\"===A)G.domain[1]-=Q/l.h,u[1]*=-1;else{G.domain[0]+=Q/l.h;var d=g.lineCount(o);u[1]+=(1-d)*p}a.attr(\\\"transform\\\",\\\"translate(\\\"+u+\\\")\\\"),G.setScale()}}t.selectAll(\\\".\\\"+T.cbfills+\\\",.\\\"+T.cblines).attr(\\\"transform\\\",\\\"translate(0,\\\"+Math.round(l.h*(1-G.domain[1]))+\\\")\\\"),K.attr(\\\"transform\\\",\\\"translate(0,\\\"+Math.round(-l.t)+\\\")\\\");var m=t.select(\\\".\\\"+T.cbfills).selectAll(\\\"rect.\\\"+T.cbfill).data(z);m.enter().append(\\\"rect\\\").classed(T.cbfill,!0).style(\\\"stroke\\\",\\\"none\\\"),m.exit().remove();var y=M.map(G.c2p).map(Math.round).sort(function(t,e){return t-e});m.each(function(t,a){var o=[0===a?M[0]:(z[a]+z[a-1])/2,a===z.length-1?M[1]:(z[a]+z[a+1])/2].map(G.c2p).map(Math.round);o[1]=c.constrain(o[1]+(o[1]>o[0])?1:-1,y[0],y[1]);var s=n.select(this).attr({x:j,width:Math.max(I,2),y:n.min(o),height:Math.max(n.max(o)-n.min(o),2)});if(e._fillgradient)h.gradient(s,r,e._id,\\\"vertical\\\",e._fillgradient,\\\"fill\\\");else{var l=E(t).replace(\\\"e-\\\",\\\"\\\");s.attr(\\\"fill\\\",i(l).toHexString())}});var x=t.select(\\\".\\\"+T.cblines).selectAll(\\\"path.\\\"+T.cbline).data(v.color&&v.width?O:[]);x.enter().append(\\\"path\\\").classed(T.cbline,!0),x.exit().remove(),x.each(function(t){n.select(this).attr(\\\"d\\\",\\\"M\\\"+j+\\\",\\\"+(Math.round(G.c2p(t))+v.width/2%1)+\\\"h\\\"+I).call(h.lineGroupStyle,v.width,S(t),v.dash)}),K.selectAll(\\\"g.\\\"+G._id+\\\"tick,path\\\").remove();var b=j+I+(e.outlinewidth||0)/2-(\\\"outside\\\"===e.ticks?1:0),w=s.calcTicks(G),k=s.makeTransFn(G),C=s.getTickSigns(G)[2];return s.drawTicks(r,G,{vals:\\\"inside\\\"===G.ticks?s.clipEnds(G,w):w,layer:K,path:s.makeTickPath(G,b,C),transFn:k}),s.drawLabels(r,G,{vals:w,layer:K,transFn:k,labelFns:s.makeLabelFns(G,b)})},function(){if(-1===[\\\"top\\\",\\\"bottom\\\"].indexOf(A)){var t=G.title.font.size,e=G._offset+G._length/2,i=l.l+(G.position||0)*l.w+(\\\"right\\\"===G.side?10+t*(G.showticklabels?1:.5):-10-t*(G.showticklabels?.5:0));tt(\\\"h\\\"+G._id+\\\"title\\\",{avoid:{selection:n.select(r).selectAll(\\\"g.\\\"+G._id+\\\"tick\\\"),side:A,offsetLeft:l.l,offsetTop:0,maxShift:o.width},attributes:{x:i,y:e,\\\"text-anchor\\\":\\\"middle\\\"},transform:{rotate:\\\"-90\\\",offset:0}})}},a.previousPromises,function(){var n=I+e.outlinewidth/2+h.bBox(K.node()).width;if(($=J.select(\\\"text\\\")).node()&&!$.classed(T.jsPlaceholder)){var i,o=J.select(\\\".h\\\"+G._id+\\\"title-math-group\\\").node();i=o&&-1!==[\\\"top\\\",\\\"bottom\\\"].indexOf(A)?h.bBox(o).width:h.bBox(J.node()).right-j-l.l,n=Math.max(n,i)}var s=2*e.xpad+n+e.borderwidth+e.outlinewidth/2,c=H-q;t.select(\\\".\\\"+T.cbbg).attr({x:j-e.xpad-(e.borderwidth+e.outlinewidth)/2,y:q-B,width:Math.max(s,2),height:Math.max(c+2*B,2)}).call(p.fill,e.bgcolor).call(p.stroke,e.bordercolor).style(\\\"stroke-width\\\",e.borderwidth),t.selectAll(\\\".\\\"+T.cboutline).attr({x:j,y:q+e.ypad+(\\\"top\\\"===A?Q:0),width:Math.max(I,2),height:Math.max(c-2*e.ypad-Q,2)}).call(p.stroke,e.outlinecolor).style({fill:\\\"none\\\",\\\"stroke-width\\\":e.outlinewidth});var u=({center:.5,right:1}[e.xanchor]||0)*s;t.attr(\\\"transform\\\",\\\"translate(\\\"+(l.l-u)+\\\",\\\"+l.t+\\\")\\\");var f={},d=w[e.yanchor],g=k[e.yanchor];\\\"pixels\\\"===e.lenmode?(f.y=e.y,f.t=c*d,f.b=c*g):(f.t=f.b=0,f.yt=e.y+e.len*d,f.yb=e.y-e.len*g);var v=w[e.xanchor],m=k[e.xanchor];if(\\\"pixels\\\"===e.thicknessmode)f.x=e.x,f.l=s*v,f.r=s*m;else{var y=s-I;f.l=y*v,f.r=y*m,f.xl=e.x-e.thickness*v,f.xr=e.x+e.thickness*m}a.autoMargin(r,e._id,f)}],r)}(r,e,t);v&&v.then&&(t._promises||[]).push(v),t._context.edits.colorbarPosition&&function(t,e,r){var n,i,a,s=r._fullLayout._size;l.init({element:t.node(),gd:r,prepFn:function(){n=t.attr(\\\"transform\\\"),f(t)},moveFn:function(r,o){t.attr(\\\"transform\\\",n+\\\" translate(\\\"+r+\\\",\\\"+o+\\\")\\\"),i=l.align(e._xLeftFrac+r/s.w,e._thickFrac,0,1,e.xanchor),a=l.align(e._yBottomFrac-o/s.h,e._lenFrac,0,1,e.yanchor);var c=l.getCursor(i,a,e.xanchor,e.yanchor);f(t,c)},doneFn:function(){if(f(t),void 0!==i&&void 0!==a){var n={};n[e._propPrefix+\\\"x\\\"]=i,n[e._propPrefix+\\\"y\\\"]=a,void 0!==e._traceIndex?o.call(\\\"_guiRestyle\\\",r,n,e._traceIndex):o.call(\\\"_guiRelayout\\\",r,n)}}})}(r,e,t)}),e.exit().each(function(e){a.autoMargin(t,e._id)}).remove(),e.order()}}},{\\\"../../constants/alignment\\\":675,\\\"../../lib\\\":703,\\\"../../lib/extend\\\":693,\\\"../../lib/setcursor\\\":723,\\\"../../lib/svg_text_utils\\\":727,\\\"../../plots/cartesian/axes\\\":751,\\\"../../plots/cartesian/axis_defaults\\\":753,\\\"../../plots/cartesian/layout_attributes\\\":763,\\\"../../plots/cartesian/position_defaults\\\":766,\\\"../../plots/plots\\\":812,\\\"../../registry\\\":831,\\\"../color\\\":580,\\\"../colorscale/helpers\\\":591,\\\"../dragelement\\\":598,\\\"../drawing\\\":601,\\\"../titles\\\":668,\\\"./constants\\\":582,d3:157,tinycolor2:524}],585:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\");e.exports=function(t){return n.isPlainObject(t.colorbar)}},{\\\"../../lib\\\":703}],586:[function(t,e,r){\\\"use strict\\\";e.exports={moduleType:\\\"component\\\",name:\\\"colorbar\\\",attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),draw:t(\\\"./draw\\\").draw,hasColorbar:t(\\\"./has_colorbar\\\")}},{\\\"./attributes\\\":581,\\\"./defaults\\\":583,\\\"./draw\\\":584,\\\"./has_colorbar\\\":585}],587:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../colorbar/attributes\\\"),i=t(\\\"../../lib/regex\\\").counter,a=t(\\\"./scales.js\\\").scales;Object.keys(a);function o(t){return\\\"`\\\"+t+\\\"`\\\"}e.exports=function(t,e){t=t||\\\"\\\";var r,s=(e=e||{}).cLetter||\\\"c\\\",l=(\\\"onlyIfNumerical\\\"in e?e.onlyIfNumerical:Boolean(t),\\\"noScale\\\"in e?e.noScale:\\\"marker.line\\\"===t),c=\\\"showScaleDflt\\\"in e?e.showScaleDflt:\\\"z\\\"===s,u=\\\"string\\\"==typeof e.colorscaleDflt?a[e.colorscaleDflt]:null,f=e.editTypeOverride||\\\"\\\",h=t?t+\\\".\\\":\\\"\\\";\\\"colorAttr\\\"in e?(r=e.colorAttr,e.colorAttr):o(h+(r={z:\\\"z\\\",c:\\\"color\\\"}[s]));var p=s+\\\"auto\\\",d=s+\\\"min\\\",g=s+\\\"max\\\",v=s+\\\"mid\\\",m=(o(h+p),o(h+d),o(h+g),{});m[d]=m[g]=void 0;var y={};y[p]=!1;var x={};return\\\"color\\\"===r&&(x.color={valType:\\\"color\\\",arrayOk:!0,editType:f||\\\"style\\\"},e.anim&&(x.color.anim=!0)),x[p]={valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\",impliedEdits:m},x[d]={valType:\\\"number\\\",dflt:null,editType:f||\\\"plot\\\",impliedEdits:y},x[g]={valType:\\\"number\\\",dflt:null,editType:f||\\\"plot\\\",impliedEdits:y},x[v]={valType:\\\"number\\\",dflt:null,editType:\\\"calc\\\",impliedEdits:m},x.colorscale={valType:\\\"colorscale\\\",editType:\\\"calc\\\",dflt:u,impliedEdits:{autocolorscale:!1}},x.autocolorscale={valType:\\\"boolean\\\",dflt:!1!==e.autoColorDflt,editType:\\\"calc\\\",impliedEdits:{colorscale:void 0}},x.reversescale={valType:\\\"boolean\\\",dflt:!1,editType:\\\"plot\\\"},l||(x.showscale={valType:\\\"boolean\\\",dflt:c,editType:\\\"calc\\\"},x.colorbar=n),e.noColorAxis||(x.coloraxis={valType:\\\"subplotid\\\",regex:i(\\\"coloraxis\\\"),dflt:null,editType:\\\"calc\\\"}),x}},{\\\"../../lib/regex\\\":719,\\\"../colorbar/attributes\\\":581,\\\"./scales.js\\\":595}],588:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"./helpers\\\").extractOpts;e.exports=function(t,e,r){var o,s=t._fullLayout,l=r.vals,c=r.containerStr,u=c?i.nestedProperty(e,c).get():e,f=a(u),h=!1!==f.auto,p=f.min,d=f.max,g=f.mid,v=function(){return i.aggNums(Math.min,null,l)},m=function(){return i.aggNums(Math.max,null,l)};(void 0===p?p=v():h&&(p=u._colorAx&&n(p)?Math.min(p,v()):v()),void 0===d?d=m():h&&(d=u._colorAx&&n(d)?Math.max(d,m()):m()),h&&void 0!==g&&(d-g>g-p?p=g-(d-g):d-g<g-p&&(d=g+(g-p))),p===d&&(p-=.5,d+=.5),f._sync(\\\"min\\\",p),f._sync(\\\"max\\\",d),f.autocolorscale)&&(o=p*d<0?s.colorscale.diverging:p>=0?s.colorscale.sequential:s.colorscale.sequentialminus,f._sync(\\\"colorscale\\\",o))}},{\\\"../../lib\\\":703,\\\"./helpers\\\":591,\\\"fast-isnumeric\\\":224}],589:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./helpers\\\").hasColorscale,a=t(\\\"./helpers\\\").extractOpts;e.exports=function(t,e){function r(t,e){var r=t[\\\"_\\\"+e];void 0!==r&&(t[e]=r)}function o(t,i){var o=i.container?n.nestedProperty(t,i.container).get():t;if(o)if(o.coloraxis)o._colorAx=e[o.coloraxis];else{var s=a(o),l=s.auto;(l||void 0===s.min)&&r(o,i.min),(l||void 0===s.max)&&r(o,i.max),s.autocolorscale&&r(o,\\\"colorscale\\\")}}for(var s=0;s<t.length;s++){var l=t[s],c=l._module.colorbar;if(c)if(Array.isArray(c))for(var u=0;u<c.length;u++)o(l,c[u]);else o(l,c);i(l,\\\"marker.line\\\")&&o(l,{container:\\\"marker.line\\\",min:\\\"cmin\\\",max:\\\"cmax\\\"})}for(var f in e._colorAxes)o(e[f],{min:\\\"cmin\\\",max:\\\"cmax\\\"})}},{\\\"../../lib\\\":703,\\\"./helpers\\\":591}],590:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../colorbar/has_colorbar\\\"),o=t(\\\"../colorbar/defaults\\\"),s=t(\\\"./scales\\\").isValid,l=t(\\\"../../registry\\\").traceIs;function c(t,e){var r=e.slice(0,e.length-1);return e?i.nestedProperty(t,r).get()||{}:t}e.exports=function t(e,r,u,f,h){var p=h.prefix,d=h.cLetter,g=\\\"_module\\\"in r,v=c(e,p),m=c(r,p),y=c(r._template||{},p)||{},x=function(){return delete e.coloraxis,delete r.coloraxis,t(e,r,u,f,h)};if(g){var b=u._colorAxes||{},_=f(p+\\\"coloraxis\\\");if(_){var w=l(r,\\\"contour\\\")&&i.nestedProperty(r,\\\"contours.coloring\\\").get()||\\\"heatmap\\\",k=b[_];return void(k?(k[2].push(x),k[0]!==w&&(k[0]=!1,i.warn([\\\"Ignoring coloraxis:\\\",_,\\\"setting\\\",\\\"as it is linked to incompatible colorscales.\\\"].join(\\\" \\\")))):b[_]=[w,r,[x]])}}var T=v[d+\\\"min\\\"],A=v[d+\\\"max\\\"],M=n(T)&&n(A)&&T<A;f(p+d+\\\"auto\\\",!M)?f(p+d+\\\"mid\\\"):(f(p+d+\\\"min\\\"),f(p+d+\\\"max\\\"));var S,E,C=v.colorscale,L=y.colorscale;(void 0!==C&&(S=!s(C)),void 0!==L&&(S=!s(L)),f(p+\\\"autocolorscale\\\",S),f(p+\\\"colorscale\\\"),f(p+\\\"reversescale\\\"),\\\"marker.line.\\\"!==p)&&(p&&g&&(E=a(v)),f(p+\\\"showscale\\\",E)&&o(v,m,u))}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"../colorbar/defaults\\\":583,\\\"../colorbar/has_colorbar\\\":585,\\\"./scales\\\":595,\\\"fast-isnumeric\\\":224}],591:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"tinycolor2\\\"),a=t(\\\"fast-isnumeric\\\"),o=t(\\\"../../lib\\\"),s=t(\\\"../color\\\"),l=t(\\\"./scales\\\").isValid;var c=[\\\"showscale\\\",\\\"autocolorscale\\\",\\\"colorscale\\\",\\\"reversescale\\\",\\\"colorbar\\\"],u=[\\\"min\\\",\\\"max\\\",\\\"mid\\\",\\\"auto\\\"];function f(t){var e,r,n,i=t._colorAx,a=i||t,o={};for(r=0;r<c.length;r++)o[n=c[r]]=a[n];if(i)for(e=\\\"c\\\",r=0;r<u.length;r++)o[n=u[r]]=a[\\\"c\\\"+n];else{var s;for(r=0;r<u.length;r++)(s=\\\"c\\\"+(n=u[r]))in a?o[n]=a[s]:(s=\\\"z\\\"+n)in a&&(o[n]=a[s]);e=s.charAt(0)}return o._sync=function(t,r){var n=-1!==u.indexOf(t)?e+t:t;a[n]=a[\\\"_\\\"+n]=r},o}function h(t){for(var e=f(t),r=e.min,n=e.max,i=e.reversescale?p(e.colorscale):e.colorscale,a=i.length,o=new Array(a),s=new Array(a),l=0;l<a;l++){var c=i[l];o[l]=r+c[0]*(n-r),s[l]=c[1]}return{domain:o,range:s}}function p(t){for(var e=t.length,r=new Array(e),n=e-1,i=0;n>=0;n--,i++){var a=t[n];r[i]=[1-a[0],a[1]]}return r}function d(t,e){e=e||{};for(var r=t.domain,o=t.range,l=o.length,c=new Array(l),u=0;u<l;u++){var f=i(o[u]).toRgb();c[u]=[f.r,f.g,f.b,f.a]}var h,p=n.scale.linear().domain(r).range(c).clamp(!0),d=e.noNumericCheck,v=e.returnArray;return(h=d&&v?p:d?function(t){return g(p(t))}:v?function(t){return a(t)?p(t):i(t).isValid()?t:s.defaultLine}:function(t){return a(t)?g(p(t)):i(t).isValid()?t:s.defaultLine}).domain=p.domain,h.range=function(){return o},h}function g(t){var e={r:t[0],g:t[1],b:t[2],a:t[3]};return i(e).toRgbString()}e.exports={hasColorscale:function(t,e){var r=e?o.nestedProperty(t,e).get()||{}:t,n=r.color,i=!1;if(o.isArrayOrTypedArray(n))for(var s=0;s<n.length;s++)if(a(n[s])){i=!0;break}return o.isPlainObject(r)&&(i||!0===r.showscale||a(r.cmin)&&a(r.cmax)||l(r.colorscale)||o.isPlainObject(r.colorbar))},extractOpts:f,extractScale:h,flipScale:p,makeColorScaleFunc:d,makeColorScaleFuncFromTrace:function(t,e){return d(h(t),e)}}},{\\\"../../lib\\\":703,\\\"../color\\\":580,\\\"./scales\\\":595,d3:157,\\\"fast-isnumeric\\\":224,tinycolor2:524}],592:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./scales\\\"),i=t(\\\"./helpers\\\");e.exports={moduleType:\\\"component\\\",name:\\\"colorscale\\\",attributes:t(\\\"./attributes\\\"),layoutAttributes:t(\\\"./layout_attributes\\\"),supplyLayoutDefaults:t(\\\"./layout_defaults\\\"),handleDefaults:t(\\\"./defaults\\\"),crossTraceDefaults:t(\\\"./cross_trace_defaults\\\"),calc:t(\\\"./calc\\\"),scales:n.scales,defaultScale:n.defaultScale,getScale:n.get,isValidScale:n.isValid,hasColorscale:i.hasColorscale,extractOpts:i.extractOpts,extractScale:i.extractScale,flipScale:i.flipScale,makeColorScaleFunc:i.makeColorScaleFunc,makeColorScaleFuncFromTrace:i.makeColorScaleFuncFromTrace}},{\\\"./attributes\\\":587,\\\"./calc\\\":588,\\\"./cross_trace_defaults\\\":589,\\\"./defaults\\\":590,\\\"./helpers\\\":591,\\\"./layout_attributes\\\":593,\\\"./layout_defaults\\\":594,\\\"./scales\\\":595}],593:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib/extend\\\").extendFlat,i=t(\\\"./attributes\\\"),a=t(\\\"./scales\\\").scales;e.exports={editType:\\\"calc\\\",colorscale:{editType:\\\"calc\\\",sequential:{valType:\\\"colorscale\\\",dflt:a.Reds,editType:\\\"calc\\\"},sequentialminus:{valType:\\\"colorscale\\\",dflt:a.Blues,editType:\\\"calc\\\"},diverging:{valType:\\\"colorscale\\\",dflt:a.RdBu,editType:\\\"calc\\\"}},coloraxis:n({_isSubplotObj:!0,editType:\\\"calc\\\"},i(\\\"\\\",{colorAttr:\\\"corresponding trace color array(s)\\\",noColorAxis:!0,showScaleDflt:!0}))}},{\\\"../../lib/extend\\\":693,\\\"./attributes\\\":587,\\\"./scales\\\":595}],594:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plot_api/plot_template\\\"),a=t(\\\"./layout_attributes\\\"),o=t(\\\"./defaults\\\");e.exports=function(t,e){function r(r,i){return n.coerce(t,e,a,r,i)}r(\\\"colorscale.sequential\\\"),r(\\\"colorscale.sequentialminus\\\"),r(\\\"colorscale.diverging\\\");var s,l,c=e._colorAxes;function u(t,e){return n.coerce(s,l,a.coloraxis,t,e)}for(var f in c){var h=c[f];if(h[0])s=t[f]||{},(l=i.newContainer(e,f,\\\"coloraxis\\\"))._name=f,o(s,l,e,u,{prefix:\\\"\\\",cLetter:\\\"c\\\"});else{for(var p=0;p<h[2].length;p++)h[2][p]();delete e._colorAxes[f]}}}},{\\\"../../lib\\\":703,\\\"../../plot_api/plot_template\\\":741,\\\"./defaults\\\":590,\\\"./layout_attributes\\\":593}],595:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"tinycolor2\\\"),i={Greys:[[0,\\\"rgb(0,0,0)\\\"],[1,\\\"rgb(255,255,255)\\\"]],YlGnBu:[[0,\\\"rgb(8,29,88)\\\"],[.125,\\\"rgb(37,52,148)\\\"],[.25,\\\"rgb(34,94,168)\\\"],[.375,\\\"rgb(29,145,192)\\\"],[.5,\\\"rgb(65,182,196)\\\"],[.625,\\\"rgb(127,205,187)\\\"],[.75,\\\"rgb(199,233,180)\\\"],[.875,\\\"rgb(237,248,217)\\\"],[1,\\\"rgb(255,255,217)\\\"]],Greens:[[0,\\\"rgb(0,68,27)\\\"],[.125,\\\"rgb(0,109,44)\\\"],[.25,\\\"rgb(35,139,69)\\\"],[.375,\\\"rgb(65,171,93)\\\"],[.5,\\\"rgb(116,196,118)\\\"],[.625,\\\"rgb(161,217,155)\\\"],[.75,\\\"rgb(199,233,192)\\\"],[.875,\\\"rgb(229,245,224)\\\"],[1,\\\"rgb(247,252,245)\\\"]],YlOrRd:[[0,\\\"rgb(128,0,38)\\\"],[.125,\\\"rgb(189,0,38)\\\"],[.25,\\\"rgb(227,26,28)\\\"],[.375,\\\"rgb(252,78,42)\\\"],[.5,\\\"rgb(253,141,60)\\\"],[.625,\\\"rgb(254,178,76)\\\"],[.75,\\\"rgb(254,217,118)\\\"],[.875,\\\"rgb(255,237,160)\\\"],[1,\\\"rgb(255,255,204)\\\"]],Bluered:[[0,\\\"rgb(0,0,255)\\\"],[1,\\\"rgb(255,0,0)\\\"]],RdBu:[[0,\\\"rgb(5,10,172)\\\"],[.35,\\\"rgb(106,137,247)\\\"],[.5,\\\"rgb(190,190,190)\\\"],[.6,\\\"rgb(220,170,132)\\\"],[.7,\\\"rgb(230,145,90)\\\"],[1,\\\"rgb(178,10,28)\\\"]],Reds:[[0,\\\"rgb(220,220,220)\\\"],[.2,\\\"rgb(245,195,157)\\\"],[.4,\\\"rgb(245,160,105)\\\"],[1,\\\"rgb(178,10,28)\\\"]],Blues:[[0,\\\"rgb(5,10,172)\\\"],[.35,\\\"rgb(40,60,190)\\\"],[.5,\\\"rgb(70,100,245)\\\"],[.6,\\\"rgb(90,120,245)\\\"],[.7,\\\"rgb(106,137,247)\\\"],[1,\\\"rgb(220,220,220)\\\"]],Picnic:[[0,\\\"rgb(0,0,255)\\\"],[.1,\\\"rgb(51,153,255)\\\"],[.2,\\\"rgb(102,204,255)\\\"],[.3,\\\"rgb(153,204,255)\\\"],[.4,\\\"rgb(204,204,255)\\\"],[.5,\\\"rgb(255,255,255)\\\"],[.6,\\\"rgb(255,204,255)\\\"],[.7,\\\"rgb(255,153,255)\\\"],[.8,\\\"rgb(255,102,204)\\\"],[.9,\\\"rgb(255,102,102)\\\"],[1,\\\"rgb(255,0,0)\\\"]],Rainbow:[[0,\\\"rgb(150,0,90)\\\"],[.125,\\\"rgb(0,0,200)\\\"],[.25,\\\"rgb(0,25,255)\\\"],[.375,\\\"rgb(0,152,255)\\\"],[.5,\\\"rgb(44,255,150)\\\"],[.625,\\\"rgb(151,255,0)\\\"],[.75,\\\"rgb(255,234,0)\\\"],[.875,\\\"rgb(255,111,0)\\\"],[1,\\\"rgb(255,0,0)\\\"]],Portland:[[0,\\\"rgb(12,51,131)\\\"],[.25,\\\"rgb(10,136,186)\\\"],[.5,\\\"rgb(242,211,56)\\\"],[.75,\\\"rgb(242,143,56)\\\"],[1,\\\"rgb(217,30,30)\\\"]],Jet:[[0,\\\"rgb(0,0,131)\\\"],[.125,\\\"rgb(0,60,170)\\\"],[.375,\\\"rgb(5,255,255)\\\"],[.625,\\\"rgb(255,255,0)\\\"],[.875,\\\"rgb(250,0,0)\\\"],[1,\\\"rgb(128,0,0)\\\"]],Hot:[[0,\\\"rgb(0,0,0)\\\"],[.3,\\\"rgb(230,0,0)\\\"],[.6,\\\"rgb(255,210,0)\\\"],[1,\\\"rgb(255,255,255)\\\"]],Blackbody:[[0,\\\"rgb(0,0,0)\\\"],[.2,\\\"rgb(230,0,0)\\\"],[.4,\\\"rgb(230,210,0)\\\"],[.7,\\\"rgb(255,255,255)\\\"],[1,\\\"rgb(160,200,255)\\\"]],Earth:[[0,\\\"rgb(0,0,130)\\\"],[.1,\\\"rgb(0,180,180)\\\"],[.2,\\\"rgb(40,210,40)\\\"],[.4,\\\"rgb(230,230,50)\\\"],[.6,\\\"rgb(120,70,20)\\\"],[1,\\\"rgb(255,255,255)\\\"]],Electric:[[0,\\\"rgb(0,0,0)\\\"],[.15,\\\"rgb(30,0,100)\\\"],[.4,\\\"rgb(120,0,100)\\\"],[.6,\\\"rgb(160,90,0)\\\"],[.8,\\\"rgb(230,200,0)\\\"],[1,\\\"rgb(255,250,220)\\\"]],Viridis:[[0,\\\"#440154\\\"],[.06274509803921569,\\\"#48186a\\\"],[.12549019607843137,\\\"#472d7b\\\"],[.18823529411764706,\\\"#424086\\\"],[.25098039215686274,\\\"#3b528b\\\"],[.3137254901960784,\\\"#33638d\\\"],[.3764705882352941,\\\"#2c728e\\\"],[.4392156862745098,\\\"#26828e\\\"],[.5019607843137255,\\\"#21918c\\\"],[.5647058823529412,\\\"#1fa088\\\"],[.6274509803921569,\\\"#28ae80\\\"],[.6901960784313725,\\\"#3fbc73\\\"],[.7529411764705882,\\\"#5ec962\\\"],[.8156862745098039,\\\"#84d44b\\\"],[.8784313725490196,\\\"#addc30\\\"],[.9411764705882353,\\\"#d8e219\\\"],[1,\\\"#fde725\\\"]],Cividis:[[0,\\\"rgb(0,32,76)\\\"],[.058824,\\\"rgb(0,42,102)\\\"],[.117647,\\\"rgb(0,52,110)\\\"],[.176471,\\\"rgb(39,63,108)\\\"],[.235294,\\\"rgb(60,74,107)\\\"],[.294118,\\\"rgb(76,85,107)\\\"],[.352941,\\\"rgb(91,95,109)\\\"],[.411765,\\\"rgb(104,106,112)\\\"],[.470588,\\\"rgb(117,117,117)\\\"],[.529412,\\\"rgb(131,129,120)\\\"],[.588235,\\\"rgb(146,140,120)\\\"],[.647059,\\\"rgb(161,152,118)\\\"],[.705882,\\\"rgb(176,165,114)\\\"],[.764706,\\\"rgb(192,177,109)\\\"],[.823529,\\\"rgb(209,191,102)\\\"],[.882353,\\\"rgb(225,204,92)\\\"],[.941176,\\\"rgb(243,219,79)\\\"],[1,\\\"rgb(255,233,69)\\\"]]},a=i.RdBu;function o(t){var e=0;if(!Array.isArray(t)||t.length<2)return!1;if(!t[0]||!t[t.length-1])return!1;if(0!=+t[0][0]||1!=+t[t.length-1][0])return!1;for(var r=0;r<t.length;r++){var i=t[r];if(2!==i.length||+i[0]<e||!n(i[1]).isValid())return!1;e=+i[0]}return!0}e.exports={scales:i,defaultScale:a,get:function(t,e){if(e||(e=a),!t)return e;function r(){try{t=i[t]||JSON.parse(t)}catch(r){t=e}}return\\\"string\\\"==typeof t&&(r(),\\\"string\\\"==typeof t&&r()),o(t)?t:e},isValid:function(t){return void 0!==i[t]||o(t)}}},{tinycolor2:524}],596:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,n,i){var a=(t-r)/(n-r),o=a+e/(n-r),s=(a+o)/2;return\\\"left\\\"===i||\\\"bottom\\\"===i?a:\\\"center\\\"===i||\\\"middle\\\"===i?s:\\\"right\\\"===i||\\\"top\\\"===i?o:a<2/3-s?a:o>4/3-s?o:s}},{}],597:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=[[\\\"sw-resize\\\",\\\"s-resize\\\",\\\"se-resize\\\"],[\\\"w-resize\\\",\\\"move\\\",\\\"e-resize\\\"],[\\\"nw-resize\\\",\\\"n-resize\\\",\\\"ne-resize\\\"]];e.exports=function(t,e,r,a){return t=\\\"left\\\"===r?0:\\\"center\\\"===r?1:\\\"right\\\"===r?2:n.constrain(Math.floor(3*t),0,2),e=\\\"bottom\\\"===a?0:\\\"middle\\\"===a?1:\\\"top\\\"===a?2:n.constrain(Math.floor(3*e),0,2),i[e][t]}},{\\\"../../lib\\\":703}],598:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"mouse-event-offset\\\"),i=t(\\\"has-hover\\\"),a=t(\\\"has-passive-events\\\"),o=t(\\\"../../lib\\\").removeElement,s=t(\\\"../../plots/cartesian/constants\\\"),l=t(\\\"../../constants/interactions\\\"),c=e.exports={};c.align=t(\\\"./align\\\"),c.getCursor=t(\\\"./cursor\\\");var u=t(\\\"./unhover\\\");function f(){var t=document.createElement(\\\"div\\\");t.className=\\\"dragcover\\\";var e=t.style;return e.position=\\\"fixed\\\",e.left=0,e.right=0,e.top=0,e.bottom=0,e.zIndex=999999999,e.background=\\\"none\\\",document.body.appendChild(t),t}function h(t){return n(t.changedTouches?t.changedTouches[0]:t,document.body)}c.unhover=u.wrapped,c.unhoverRaw=u.raw,c.init=function(t){var e,r,n,u,p,d,g,v,m=t.gd,y=1,x=l.DBLCLICKDELAY,b=t.element;m._mouseDownTime||(m._mouseDownTime=0),b.style.pointerEvents=\\\"all\\\",b.onmousedown=w,a?(b._ontouchstart&&b.removeEventListener(\\\"touchstart\\\",b._ontouchstart),b._ontouchstart=w,b.addEventListener(\\\"touchstart\\\",w,{passive:!1})):b.ontouchstart=w;var _=t.clampFn||function(t,e,r){return Math.abs(t)<r&&(t=0),Math.abs(e)<r&&(e=0),[t,e]};function w(a){m._dragged=!1,m._dragging=!0;var o=h(a);e=o[0],r=o[1],g=a.target,d=a,v=2===a.buttons||a.ctrlKey,\\\"undefined\\\"==typeof a.clientX&&\\\"undefined\\\"==typeof a.clientY&&(a.clientX=e,a.clientY=r),(n=(new Date).getTime())-m._mouseDownTime<x?y+=1:(y=1,m._mouseDownTime=n),t.prepFn&&t.prepFn(a,e,r),i&&!v?(p=f()).style.cursor=window.getComputedStyle(b).cursor:i||(p=document,u=window.getComputedStyle(document.documentElement).cursor,document.documentElement.style.cursor=window.getComputedStyle(b).cursor),document.addEventListener(\\\"mouseup\\\",T),document.addEventListener(\\\"touchend\\\",T),!1!==t.dragmode&&(a.preventDefault(),document.addEventListener(\\\"mousemove\\\",k),document.addEventListener(\\\"touchmove\\\",k))}function k(n){n.preventDefault();var i=h(n),a=t.minDrag||s.MINDRAG,o=_(i[0]-e,i[1]-r,a),l=o[0],u=o[1];(l||u)&&(m._dragged=!0,c.unhover(m)),m._dragged&&t.moveFn&&!v&&(m._dragdata={element:b,dx:l,dy:u},t.moveFn(l,u))}function T(e){if(delete m._dragdata,!1!==t.dragmode&&(e.preventDefault(),document.removeEventListener(\\\"mousemove\\\",k),document.removeEventListener(\\\"touchmove\\\",k)),document.removeEventListener(\\\"mouseup\\\",T),document.removeEventListener(\\\"touchend\\\",T),i?o(p):u&&(p.documentElement.style.cursor=u,u=null),m._dragging){if(m._dragging=!1,(new Date).getTime()-m._mouseDownTime>x&&(y=Math.max(y-1,1)),m._dragged)t.doneFn&&t.doneFn();else if(t.clickFn&&t.clickFn(y,d),!v){var r;try{r=new MouseEvent(\\\"click\\\",e)}catch(t){var n=h(e);(r=document.createEvent(\\\"MouseEvents\\\")).initMouseEvent(\\\"click\\\",e.bubbles,e.cancelable,e.view,e.detail,e.screenX,e.screenY,n[0],n[1],e.ctrlKey,e.altKey,e.shiftKey,e.metaKey,e.button,e.relatedTarget)}g.dispatchEvent(r)}m._dragging=!1,m._dragged=!1}else m._dragged=!1}},c.coverSlip=f},{\\\"../../constants/interactions\\\":679,\\\"../../lib\\\":703,\\\"../../plots/cartesian/constants\\\":757,\\\"./align\\\":596,\\\"./cursor\\\":597,\\\"./unhover\\\":599,\\\"has-hover\\\":405,\\\"has-passive-events\\\":406,\\\"mouse-event-offset\\\":431}],599:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib/events\\\"),i=t(\\\"../../lib/throttle\\\"),a=t(\\\"../../lib/get_graph_div\\\"),o=t(\\\"../fx/constants\\\"),s=e.exports={};s.wrapped=function(t,e,r){(t=a(t))._fullLayout&&i.clear(t._fullLayout._uid+o.HOVERID),s.raw(t,e,r)},s.raw=function(t,e){var r=t._fullLayout,i=t._hoverdata;e||(e={}),e.target&&!1===n.triggerHandler(t,\\\"plotly_beforehover\\\",e)||(r._hoverlayer.selectAll(\\\"g\\\").remove(),r._hoverlayer.selectAll(\\\"line\\\").remove(),r._hoverlayer.selectAll(\\\"circle\\\").remove(),t._hoverdata=void 0,e.target&&i&&t.emit(\\\"plotly_unhover\\\",{event:e,points:i}))}},{\\\"../../lib/events\\\":692,\\\"../../lib/get_graph_div\\\":699,\\\"../../lib/throttle\\\":728,\\\"../fx/constants\\\":613}],600:[function(t,e,r){\\\"use strict\\\";r.dash={valType:\\\"string\\\",values:[\\\"solid\\\",\\\"dot\\\",\\\"dash\\\",\\\"longdash\\\",\\\"dashdot\\\",\\\"longdashdot\\\"],dflt:\\\"solid\\\",editType:\\\"style\\\"}},{}],601:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"fast-isnumeric\\\"),a=t(\\\"tinycolor2\\\"),o=t(\\\"../../registry\\\"),s=t(\\\"../color\\\"),l=t(\\\"../colorscale\\\"),c=t(\\\"../../lib\\\"),u=t(\\\"../../lib/svg_text_utils\\\"),f=t(\\\"../../constants/xmlns_namespaces\\\"),h=t(\\\"../../constants/alignment\\\").LINE_SPACING,p=t(\\\"../../constants/interactions\\\").DESELECTDIM,d=t(\\\"../../traces/scatter/subtypes\\\"),g=t(\\\"../../traces/scatter/make_bubble_size_func\\\"),v=e.exports={};v.font=function(t,e,r,n){c.isPlainObject(e)&&(n=e.color,r=e.size,e=e.family),e&&t.style(\\\"font-family\\\",e),r+1&&t.style(\\\"font-size\\\",r+\\\"px\\\"),n&&t.call(s.fill,n)},v.setPosition=function(t,e,r){t.attr(\\\"x\\\",e).attr(\\\"y\\\",r)},v.setSize=function(t,e,r){t.attr(\\\"width\\\",e).attr(\\\"height\\\",r)},v.setRect=function(t,e,r,n,i){t.call(v.setPosition,e,r).call(v.setSize,n,i)},v.translatePoint=function(t,e,r,n){var a=r.c2p(t.x),o=n.c2p(t.y);return!!(i(a)&&i(o)&&e.node())&&(\\\"text\\\"===e.node().nodeName?e.attr(\\\"x\\\",a).attr(\\\"y\\\",o):e.attr(\\\"transform\\\",\\\"translate(\\\"+a+\\\",\\\"+o+\\\")\\\"),!0)},v.translatePoints=function(t,e,r){t.each(function(t){var i=n.select(this);v.translatePoint(t,i,e,r)})},v.hideOutsideRangePoint=function(t,e,r,n,i,a){e.attr(\\\"display\\\",r.isPtWithinRange(t,i)&&n.isPtWithinRange(t,a)?null:\\\"none\\\")},v.hideOutsideRangePoints=function(t,e){if(e._hasClipOnAxisFalse){var r=e.xaxis,i=e.yaxis;t.each(function(e){var a=e[0].trace,s=a.xcalendar,l=a.ycalendar,c=o.traceIs(a,\\\"bar-like\\\")?\\\".bartext\\\":\\\".point,.textpoint\\\";t.selectAll(c).each(function(t){v.hideOutsideRangePoint(t,n.select(this),r,i,s,l)})})}},v.crispRound=function(t,e,r){return e&&i(e)?t._context.staticPlot?e:e<1?1:Math.round(e):r||0},v.singleLineStyle=function(t,e,r,n,i){e.style(\\\"fill\\\",\\\"none\\\");var a=(((t||[])[0]||{}).trace||{}).line||{},o=r||a.width||0,l=i||a.dash||\\\"\\\";s.stroke(e,n||a.color),v.dashLine(e,l,o)},v.lineGroupStyle=function(t,e,r,i){t.style(\\\"fill\\\",\\\"none\\\").each(function(t){var a=(((t||[])[0]||{}).trace||{}).line||{},o=e||a.width||0,l=i||a.dash||\\\"\\\";n.select(this).call(s.stroke,r||a.color).call(v.dashLine,l,o)})},v.dashLine=function(t,e,r){r=+r||0,e=v.dashStyle(e,r),t.style({\\\"stroke-dasharray\\\":e,\\\"stroke-width\\\":r+\\\"px\\\"})},v.dashStyle=function(t,e){e=+e||1;var r=Math.max(e,3);return\\\"solid\\\"===t?t=\\\"\\\":\\\"dot\\\"===t?t=r+\\\"px,\\\"+r+\\\"px\\\":\\\"dash\\\"===t?t=3*r+\\\"px,\\\"+3*r+\\\"px\\\":\\\"longdash\\\"===t?t=5*r+\\\"px,\\\"+5*r+\\\"px\\\":\\\"dashdot\\\"===t?t=3*r+\\\"px,\\\"+r+\\\"px,\\\"+r+\\\"px,\\\"+r+\\\"px\\\":\\\"longdashdot\\\"===t&&(t=5*r+\\\"px,\\\"+2*r+\\\"px,\\\"+r+\\\"px,\\\"+2*r+\\\"px\\\"),t},v.singleFillStyle=function(t){var e=(((n.select(t.node()).data()[0]||[])[0]||{}).trace||{}).fillcolor;e&&t.call(s.fill,e)},v.fillGroupStyle=function(t){t.style(\\\"stroke-width\\\",0).each(function(t){var e=n.select(this);t[0].trace&&e.call(s.fill,t[0].trace.fillcolor)})};var m=t(\\\"./symbol_defs\\\");v.symbolNames=[],v.symbolFuncs=[],v.symbolNeedLines={},v.symbolNoDot={},v.symbolNoFill={},v.symbolList=[],Object.keys(m).forEach(function(t){var e=m[t];v.symbolList=v.symbolList.concat([e.n,t,e.n+100,t+\\\"-open\\\"]),v.symbolNames[e.n]=t,v.symbolFuncs[e.n]=e.f,e.needLine&&(v.symbolNeedLines[e.n]=!0),e.noDot?v.symbolNoDot[e.n]=!0:v.symbolList=v.symbolList.concat([e.n+200,t+\\\"-dot\\\",e.n+300,t+\\\"-open-dot\\\"]),e.noFill&&(v.symbolNoFill[e.n]=!0)});var y=v.symbolNames.length,x=\\\"M0,0.5L0.5,0L0,-0.5L-0.5,0Z\\\";function b(t,e){var r=t%100;return v.symbolFuncs[r](e)+(t>=200?x:\\\"\\\")}v.symbolNumber=function(t){if(\\\"string\\\"==typeof t){var e=0;t.indexOf(\\\"-open\\\")>0&&(e=100,t=t.replace(\\\"-open\\\",\\\"\\\")),t.indexOf(\\\"-dot\\\")>0&&(e+=200,t=t.replace(\\\"-dot\\\",\\\"\\\")),(t=v.symbolNames.indexOf(t))>=0&&(t+=e)}return t%100>=y||t>=400?0:Math.floor(Math.max(t,0))};var _={x1:1,x2:0,y1:0,y2:0},w={x1:0,x2:0,y1:1,y2:0},k=n.format(\\\"~.1f\\\"),T={radial:{node:\\\"radialGradient\\\"},radialreversed:{node:\\\"radialGradient\\\",reversed:!0},horizontal:{node:\\\"linearGradient\\\",attrs:_},horizontalreversed:{node:\\\"linearGradient\\\",attrs:_,reversed:!0},vertical:{node:\\\"linearGradient\\\",attrs:w},verticalreversed:{node:\\\"linearGradient\\\",attrs:w,reversed:!0}};v.gradient=function(t,e,r,i,o,l){for(var u=o.length,f=T[i],h=new Array(u),p=0;p<u;p++)f.reversed?h[u-1-p]=[k(100*(1-o[p][0])),o[p][1]]:h[p]=[k(100*o[p][0]),o[p][1]];var d=\\\"g\\\"+e._fullLayout._uid+\\\"-\\\"+r,g=e._fullLayout._defs.select(\\\".gradients\\\").selectAll(\\\"#\\\"+d).data([i+h.join(\\\";\\\")],c.identity);g.exit().remove(),g.enter().append(f.node).each(function(){var t=n.select(this);f.attrs&&t.attr(f.attrs),t.attr(\\\"id\\\",d);var e=t.selectAll(\\\"stop\\\").data(h);e.exit().remove(),e.enter().append(\\\"stop\\\"),e.each(function(t){var e=a(t[1]);n.select(this).attr({offset:t[0]+\\\"%\\\",\\\"stop-color\\\":s.tinyRGB(e),\\\"stop-opacity\\\":e.getAlpha()})})}),t.style(l,D(d,e)).style(l+\\\"-opacity\\\",null)},v.initGradients=function(t){c.ensureSingle(t._fullLayout._defs,\\\"g\\\",\\\"gradients\\\").selectAll(\\\"linearGradient,radialGradient\\\").remove()},v.pointStyle=function(t,e,r){if(t.size()){var i=v.makePointStyleFns(e);t.each(function(t){v.singlePointStyle(t,n.select(this),e,i,r)})}},v.singlePointStyle=function(t,e,r,n,i){var a=r.marker,o=a.line;if(e.style(\\\"opacity\\\",n.selectedOpacityFn?n.selectedOpacityFn(t):void 0===t.mo?a.opacity:t.mo),n.ms2mrc){var l;l=\\\"various\\\"===t.ms||\\\"various\\\"===a.size?3:n.ms2mrc(t.ms),t.mrc=l,n.selectedSizeFn&&(l=t.mrc=n.selectedSizeFn(t));var u=v.symbolNumber(t.mx||a.symbol)||0;t.om=u%200>=100,e.attr(\\\"d\\\",b(u,l))}var f,h,p,d=!1;if(t.so)p=o.outlierwidth,h=o.outliercolor,f=a.outliercolor;else{var g=(o||{}).width;p=(t.mlw+1||g+1||(t.trace?(t.trace.marker.line||{}).width:0)+1)-1||0,h=\\\"mlc\\\"in t?t.mlcc=n.lineScale(t.mlc):c.isArrayOrTypedArray(o.color)?s.defaultLine:o.color,c.isArrayOrTypedArray(a.color)&&(f=s.defaultLine,d=!0),f=\\\"mc\\\"in t?t.mcc=n.markerScale(t.mc):a.color||\\\"rgba(0,0,0,0)\\\",n.selectedColorFn&&(f=n.selectedColorFn(t))}if(t.om)e.call(s.stroke,f).style({\\\"stroke-width\\\":(p||1)+\\\"px\\\",fill:\\\"none\\\"});else{e.style(\\\"stroke-width\\\",p+\\\"px\\\");var m=a.gradient,y=t.mgt;if(y?d=!0:y=m&&m.type,Array.isArray(y)&&(y=y[0],T[y]||(y=0)),y&&\\\"none\\\"!==y){var x=t.mgc;x?d=!0:x=m.color;var _=r.uid;d&&(_+=\\\"-\\\"+t.i),v.gradient(e,i,_,y,[[0,x],[1,f]],\\\"fill\\\")}else s.fill(e,f);p&&s.stroke(e,h)}},v.makePointStyleFns=function(t){var e={},r=t.marker;return e.markerScale=v.tryColorscale(r,\\\"\\\"),e.lineScale=v.tryColorscale(r,\\\"line\\\"),o.traceIs(t,\\\"symbols\\\")&&(e.ms2mrc=d.isBubble(t)?g(t):function(){return(r.size||6)/2}),t.selectedpoints&&c.extendFlat(e,v.makeSelectedPointStyleFns(t)),e},v.makeSelectedPointStyleFns=function(t){var e={},r=t.selected||{},n=t.unselected||{},i=t.marker||{},a=r.marker||{},s=n.marker||{},l=i.opacity,u=a.opacity,f=s.opacity,h=void 0!==u,d=void 0!==f;(c.isArrayOrTypedArray(l)||h||d)&&(e.selectedOpacityFn=function(t){var e=void 0===t.mo?i.opacity:t.mo;return t.selected?h?u:e:d?f:p*e});var g=i.color,v=a.color,m=s.color;(v||m)&&(e.selectedColorFn=function(t){var e=t.mcc||g;return t.selected?v||e:m||e});var y=i.size,x=a.size,b=s.size,_=void 0!==x,w=void 0!==b;return o.traceIs(t,\\\"symbols\\\")&&(_||w)&&(e.selectedSizeFn=function(t){var e=t.mrc||y/2;return t.selected?_?x/2:e:w?b/2:e}),e},v.makeSelectedTextStyleFns=function(t){var e={},r=t.selected||{},n=t.unselected||{},i=t.textfont||{},a=r.textfont||{},o=n.textfont||{},l=i.color,c=a.color,u=o.color;return e.selectedTextColorFn=function(t){var e=t.tc||l;return t.selected?c||e:u||(c?e:s.addOpacity(e,p))},e},v.selectedPointStyle=function(t,e){if(t.size()&&e.selectedpoints){var r=v.makeSelectedPointStyleFns(e),i=e.marker||{},a=[];r.selectedOpacityFn&&a.push(function(t,e){t.style(\\\"opacity\\\",r.selectedOpacityFn(e))}),r.selectedColorFn&&a.push(function(t,e){s.fill(t,r.selectedColorFn(e))}),r.selectedSizeFn&&a.push(function(t,e){var n=e.mx||i.symbol||0,a=r.selectedSizeFn(e);t.attr(\\\"d\\\",b(v.symbolNumber(n),a)),e.mrc2=a}),a.length&&t.each(function(t){for(var e=n.select(this),r=0;r<a.length;r++)a[r](e,t)})}},v.tryColorscale=function(t,e){var r=e?c.nestedProperty(t,e).get():t;if(r){var n=r.color;if((r.colorscale||r._colorAx)&&c.isArrayOrTypedArray(n))return l.makeColorScaleFuncFromTrace(r)}return c.identity};var A={start:1,end:-1,middle:0,bottom:1,top:-1};function M(t,e,r,i){var a=n.select(t.node().parentNode),o=-1!==e.indexOf(\\\"top\\\")?\\\"top\\\":-1!==e.indexOf(\\\"bottom\\\")?\\\"bottom\\\":\\\"middle\\\",s=-1!==e.indexOf(\\\"left\\\")?\\\"end\\\":-1!==e.indexOf(\\\"right\\\")?\\\"start\\\":\\\"middle\\\",l=i?i/.8+1:0,c=(u.lineCount(t)-1)*h+1,f=A[s]*l,p=.75*r+A[o]*l+(A[o]-1)*c*r/2;t.attr(\\\"text-anchor\\\",s),a.attr(\\\"transform\\\",\\\"translate(\\\"+f+\\\",\\\"+p+\\\")\\\")}function S(t,e){var r=t.ts||e.textfont.size;return i(r)&&r>0?r:0}v.textPointStyle=function(t,e,r){if(t.size()){var i;if(e.selectedpoints){var a=v.makeSelectedTextStyleFns(e);i=a.selectedTextColorFn}t.each(function(t){var a=n.select(this),o=c.extractOption(t,e,\\\"tx\\\",\\\"text\\\");if(o||0===o){var s=t.tp||e.textposition,l=S(t,e),f=i?i(t):t.tc||e.textfont.color;a.call(v.font,t.tf||e.textfont.family,l,f).text(o).call(u.convertToTspans,r).call(M,s,l,t.mrc)}else a.remove()})}},v.selectedTextStyle=function(t,e){if(t.size()&&e.selectedpoints){var r=v.makeSelectedTextStyleFns(e);t.each(function(t){var i=n.select(this),a=r.selectedTextColorFn(t),o=t.tp||e.textposition,l=S(t,e);s.fill(i,a),M(i,o,l,t.mrc2||t.mrc)})}};var E=.5;function C(t,e,r,i){var a=t[0]-e[0],o=t[1]-e[1],s=r[0]-e[0],l=r[1]-e[1],c=Math.pow(a*a+o*o,E/2),u=Math.pow(s*s+l*l,E/2),f=(u*u*a-c*c*s)*i,h=(u*u*o-c*c*l)*i,p=3*u*(c+u),d=3*c*(c+u);return[[n.round(e[0]+(p&&f/p),2),n.round(e[1]+(p&&h/p),2)],[n.round(e[0]-(d&&f/d),2),n.round(e[1]-(d&&h/d),2)]]}v.smoothopen=function(t,e){if(t.length<3)return\\\"M\\\"+t.join(\\\"L\\\");var r,n=\\\"M\\\"+t[0],i=[];for(r=1;r<t.length-1;r++)i.push(C(t[r-1],t[r],t[r+1],e));for(n+=\\\"Q\\\"+i[0][0]+\\\" \\\"+t[1],r=2;r<t.length-1;r++)n+=\\\"C\\\"+i[r-2][1]+\\\" \\\"+i[r-1][0]+\\\" \\\"+t[r];return n+=\\\"Q\\\"+i[t.length-3][1]+\\\" \\\"+t[t.length-1]},v.smoothclosed=function(t,e){if(t.length<3)return\\\"M\\\"+t.join(\\\"L\\\")+\\\"Z\\\";var r,n=\\\"M\\\"+t[0],i=t.length-1,a=[C(t[i],t[0],t[1],e)];for(r=1;r<i;r++)a.push(C(t[r-1],t[r],t[r+1],e));for(a.push(C(t[i-1],t[i],t[0],e)),r=1;r<=i;r++)n+=\\\"C\\\"+a[r-1][1]+\\\" \\\"+a[r][0]+\\\" \\\"+t[r];return n+=\\\"C\\\"+a[i][1]+\\\" \\\"+a[0][0]+\\\" \\\"+t[0]+\\\"Z\\\"};var L={hv:function(t,e){return\\\"H\\\"+n.round(e[0],2)+\\\"V\\\"+n.round(e[1],2)},vh:function(t,e){return\\\"V\\\"+n.round(e[1],2)+\\\"H\\\"+n.round(e[0],2)},hvh:function(t,e){return\\\"H\\\"+n.round((t[0]+e[0])/2,2)+\\\"V\\\"+n.round(e[1],2)+\\\"H\\\"+n.round(e[0],2)},vhv:function(t,e){return\\\"V\\\"+n.round((t[1]+e[1])/2,2)+\\\"H\\\"+n.round(e[0],2)+\\\"V\\\"+n.round(e[1],2)}},z=function(t,e){return\\\"L\\\"+n.round(e[0],2)+\\\",\\\"+n.round(e[1],2)};v.steps=function(t){var e=L[t]||z;return function(t){for(var r=\\\"M\\\"+n.round(t[0][0],2)+\\\",\\\"+n.round(t[0][1],2),i=1;i<t.length;i++)r+=e(t[i-1],t[i]);return r}},v.makeTester=function(){var t=c.ensureSingleById(n.select(\\\"body\\\"),\\\"svg\\\",\\\"js-plotly-tester\\\",function(t){t.attr(f.svgAttrs).style({position:\\\"absolute\\\",left:\\\"-10000px\\\",top:\\\"-10000px\\\",width:\\\"9000px\\\",height:\\\"9000px\\\",\\\"z-index\\\":\\\"1\\\"})}),e=c.ensureSingle(t,\\\"path\\\",\\\"js-reference-point\\\",function(t){t.attr(\\\"d\\\",\\\"M0,0H1V1H0Z\\\").style({\\\"stroke-width\\\":0,fill:\\\"black\\\"})});v.tester=t,v.testref=e},v.savedBBoxes={};var O=0;function I(t){var e=t.getAttribute(\\\"data-unformatted\\\");if(null!==e)return e+t.getAttribute(\\\"data-math\\\")+t.getAttribute(\\\"text-anchor\\\")+t.getAttribute(\\\"style\\\")}function D(t,e){if(!t)return null;var r=e._context;return\\\"url('\\\"+(r._exportedPlot?\\\"\\\":r._baseUrl||\\\"\\\")+\\\"#\\\"+t+\\\"')\\\"}v.bBox=function(t,e,r){var i,a,o;if(r||(r=I(t)),r){if(i=v.savedBBoxes[r])return c.extendFlat({},i)}else if(1===t.childNodes.length){var s=t.childNodes[0];if(r=I(s)){var l=+s.getAttribute(\\\"x\\\")||0,f=+s.getAttribute(\\\"y\\\")||0,h=s.getAttribute(\\\"transform\\\");if(!h){var p=v.bBox(s,!1,r);return l&&(p.left+=l,p.right+=l),f&&(p.top+=f,p.bottom+=f),p}if(r+=\\\"~\\\"+l+\\\"~\\\"+f+\\\"~\\\"+h,i=v.savedBBoxes[r])return c.extendFlat({},i)}}e?a=t:(o=v.tester.node(),a=t.cloneNode(!0),o.appendChild(a)),n.select(a).attr(\\\"transform\\\",null).call(u.positionText,0,0);var d=a.getBoundingClientRect(),g=v.testref.node().getBoundingClientRect();e||o.removeChild(a);var m={height:d.height,width:d.width,left:d.left-g.left,top:d.top-g.top,right:d.right-g.left,bottom:d.bottom-g.top};return O>=1e4&&(v.savedBBoxes={},O=0),r&&(v.savedBBoxes[r]=m),O++,c.extendFlat({},m)},v.setClipUrl=function(t,e,r){t.attr(\\\"clip-path\\\",D(e,r))},v.getTranslate=function(t){var e=(t[t.attr?\\\"attr\\\":\\\"getAttribute\\\"](\\\"transform\\\")||\\\"\\\").replace(/.*\\\\btranslate\\\\((-?\\\\d*\\\\.?\\\\d*)[^-\\\\d]*(-?\\\\d*\\\\.?\\\\d*)[^\\\\d].*/,function(t,e,r){return[e,r].join(\\\" \\\")}).split(\\\" \\\");return{x:+e[0]||0,y:+e[1]||0}},v.setTranslate=function(t,e,r){var n=t.attr?\\\"attr\\\":\\\"getAttribute\\\",i=t.attr?\\\"attr\\\":\\\"setAttribute\\\",a=t[n](\\\"transform\\\")||\\\"\\\";return e=e||0,r=r||0,a=a.replace(/(\\\\btranslate\\\\(.*?\\\\);?)/,\\\"\\\").trim(),a=(a+=\\\" translate(\\\"+e+\\\", \\\"+r+\\\")\\\").trim(),t[i](\\\"transform\\\",a),a},v.getScale=function(t){var e=(t[t.attr?\\\"attr\\\":\\\"getAttribute\\\"](\\\"transform\\\")||\\\"\\\").replace(/.*\\\\bscale\\\\((\\\\d*\\\\.?\\\\d*)[^\\\\d]*(\\\\d*\\\\.?\\\\d*)[^\\\\d].*/,function(t,e,r){return[e,r].join(\\\" \\\")}).split(\\\" \\\");return{x:+e[0]||1,y:+e[1]||1}},v.setScale=function(t,e,r){var n=t.attr?\\\"attr\\\":\\\"getAttribute\\\",i=t.attr?\\\"attr\\\":\\\"setAttribute\\\",a=t[n](\\\"transform\\\")||\\\"\\\";return e=e||1,r=r||1,a=a.replace(/(\\\\bscale\\\\(.*?\\\\);?)/,\\\"\\\").trim(),a=(a+=\\\" scale(\\\"+e+\\\", \\\"+r+\\\")\\\").trim(),t[i](\\\"transform\\\",a),a};var P=/\\\\s*sc.*/;v.setPointGroupScale=function(t,e,r){if(e=e||1,r=r||1,t){var n=1===e&&1===r?\\\"\\\":\\\" scale(\\\"+e+\\\",\\\"+r+\\\")\\\";t.each(function(){var t=(this.getAttribute(\\\"transform\\\")||\\\"\\\").replace(P,\\\"\\\");t=(t+=n).trim(),this.setAttribute(\\\"transform\\\",t)})}};var R=/translate\\\\([^)]*\\\\)\\\\s*$/;v.setTextPointsScale=function(t,e,r){t&&t.each(function(){var t,i=n.select(this),a=i.select(\\\"text\\\");if(a.node()){var o=parseFloat(a.attr(\\\"x\\\")||0),s=parseFloat(a.attr(\\\"y\\\")||0),l=(i.attr(\\\"transform\\\")||\\\"\\\").match(R);t=1===e&&1===r?[]:[\\\"translate(\\\"+o+\\\",\\\"+s+\\\")\\\",\\\"scale(\\\"+e+\\\",\\\"+r+\\\")\\\",\\\"translate(\\\"+-o+\\\",\\\"+-s+\\\")\\\"],l&&t.push(l),i.attr(\\\"transform\\\",t.join(\\\" \\\"))}})}},{\\\"../../constants/alignment\\\":675,\\\"../../constants/interactions\\\":679,\\\"../../constants/xmlns_namespaces\\\":681,\\\"../../lib\\\":703,\\\"../../lib/svg_text_utils\\\":727,\\\"../../registry\\\":831,\\\"../../traces/scatter/make_bubble_size_func\\\":1091,\\\"../../traces/scatter/subtypes\\\":1098,\\\"../color\\\":580,\\\"../colorscale\\\":592,\\\"./symbol_defs\\\":602,d3:157,\\\"fast-isnumeric\\\":224,tinycolor2:524}],602:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\");e.exports={circle:{n:0,f:function(t){var e=n.round(t,2);return\\\"M\\\"+e+\\\",0A\\\"+e+\\\",\\\"+e+\\\" 0 1,1 0,-\\\"+e+\\\"A\\\"+e+\\\",\\\"+e+\\\" 0 0,1 \\\"+e+\\\",0Z\\\"}},square:{n:1,f:function(t){var e=n.round(t,2);return\\\"M\\\"+e+\\\",\\\"+e+\\\"H-\\\"+e+\\\"V-\\\"+e+\\\"H\\\"+e+\\\"Z\\\"}},diamond:{n:2,f:function(t){var e=n.round(1.3*t,2);return\\\"M\\\"+e+\\\",0L0,\\\"+e+\\\"L-\\\"+e+\\\",0L0,-\\\"+e+\\\"Z\\\"}},cross:{n:3,f:function(t){var e=n.round(.4*t,2),r=n.round(1.2*t,2);return\\\"M\\\"+r+\\\",\\\"+e+\\\"H\\\"+e+\\\"V\\\"+r+\\\"H-\\\"+e+\\\"V\\\"+e+\\\"H-\\\"+r+\\\"V-\\\"+e+\\\"H-\\\"+e+\\\"V-\\\"+r+\\\"H\\\"+e+\\\"V-\\\"+e+\\\"H\\\"+r+\\\"Z\\\"}},x:{n:4,f:function(t){var e=n.round(.8*t/Math.sqrt(2),2),r=\\\"l\\\"+e+\\\",\\\"+e,i=\\\"l\\\"+e+\\\",-\\\"+e,a=\\\"l-\\\"+e+\\\",-\\\"+e,o=\\\"l-\\\"+e+\\\",\\\"+e;return\\\"M0,\\\"+e+r+i+a+i+a+o+a+o+r+o+r+\\\"Z\\\"}},\\\"triangle-up\\\":{n:5,f:function(t){var e=n.round(2*t/Math.sqrt(3),2);return\\\"M-\\\"+e+\\\",\\\"+n.round(t/2,2)+\\\"H\\\"+e+\\\"L0,-\\\"+n.round(t,2)+\\\"Z\\\"}},\\\"triangle-down\\\":{n:6,f:function(t){var e=n.round(2*t/Math.sqrt(3),2);return\\\"M-\\\"+e+\\\",-\\\"+n.round(t/2,2)+\\\"H\\\"+e+\\\"L0,\\\"+n.round(t,2)+\\\"Z\\\"}},\\\"triangle-left\\\":{n:7,f:function(t){var e=n.round(2*t/Math.sqrt(3),2);return\\\"M\\\"+n.round(t/2,2)+\\\",-\\\"+e+\\\"V\\\"+e+\\\"L-\\\"+n.round(t,2)+\\\",0Z\\\"}},\\\"triangle-right\\\":{n:8,f:function(t){var e=n.round(2*t/Math.sqrt(3),2);return\\\"M-\\\"+n.round(t/2,2)+\\\",-\\\"+e+\\\"V\\\"+e+\\\"L\\\"+n.round(t,2)+\\\",0Z\\\"}},\\\"triangle-ne\\\":{n:9,f:function(t){var e=n.round(.6*t,2),r=n.round(1.2*t,2);return\\\"M-\\\"+r+\\\",-\\\"+e+\\\"H\\\"+e+\\\"V\\\"+r+\\\"Z\\\"}},\\\"triangle-se\\\":{n:10,f:function(t){var e=n.round(.6*t,2),r=n.round(1.2*t,2);return\\\"M\\\"+e+\\\",-\\\"+r+\\\"V\\\"+e+\\\"H-\\\"+r+\\\"Z\\\"}},\\\"triangle-sw\\\":{n:11,f:function(t){var e=n.round(.6*t,2),r=n.round(1.2*t,2);return\\\"M\\\"+r+\\\",\\\"+e+\\\"H-\\\"+e+\\\"V-\\\"+r+\\\"Z\\\"}},\\\"triangle-nw\\\":{n:12,f:function(t){var e=n.round(.6*t,2),r=n.round(1.2*t,2);return\\\"M-\\\"+e+\\\",\\\"+r+\\\"V-\\\"+e+\\\"H\\\"+r+\\\"Z\\\"}},pentagon:{n:13,f:function(t){var e=n.round(.951*t,2),r=n.round(.588*t,2),i=n.round(-t,2),a=n.round(-.309*t,2);return\\\"M\\\"+e+\\\",\\\"+a+\\\"L\\\"+r+\\\",\\\"+n.round(.809*t,2)+\\\"H-\\\"+r+\\\"L-\\\"+e+\\\",\\\"+a+\\\"L0,\\\"+i+\\\"Z\\\"}},hexagon:{n:14,f:function(t){var e=n.round(t,2),r=n.round(t/2,2),i=n.round(t*Math.sqrt(3)/2,2);return\\\"M\\\"+i+\\\",-\\\"+r+\\\"V\\\"+r+\\\"L0,\\\"+e+\\\"L-\\\"+i+\\\",\\\"+r+\\\"V-\\\"+r+\\\"L0,-\\\"+e+\\\"Z\\\"}},hexagon2:{n:15,f:function(t){var e=n.round(t,2),r=n.round(t/2,2),i=n.round(t*Math.sqrt(3)/2,2);return\\\"M-\\\"+r+\\\",\\\"+i+\\\"H\\\"+r+\\\"L\\\"+e+\\\",0L\\\"+r+\\\",-\\\"+i+\\\"H-\\\"+r+\\\"L-\\\"+e+\\\",0Z\\\"}},octagon:{n:16,f:function(t){var e=n.round(.924*t,2),r=n.round(.383*t,2);return\\\"M-\\\"+r+\\\",-\\\"+e+\\\"H\\\"+r+\\\"L\\\"+e+\\\",-\\\"+r+\\\"V\\\"+r+\\\"L\\\"+r+\\\",\\\"+e+\\\"H-\\\"+r+\\\"L-\\\"+e+\\\",\\\"+r+\\\"V-\\\"+r+\\\"Z\\\"}},star:{n:17,f:function(t){var e=1.4*t,r=n.round(.225*e,2),i=n.round(.951*e,2),a=n.round(.363*e,2),o=n.round(.588*e,2),s=n.round(-e,2),l=n.round(-.309*e,2),c=n.round(.118*e,2),u=n.round(.809*e,2);return\\\"M\\\"+r+\\\",\\\"+l+\\\"H\\\"+i+\\\"L\\\"+a+\\\",\\\"+c+\\\"L\\\"+o+\\\",\\\"+u+\\\"L0,\\\"+n.round(.382*e,2)+\\\"L-\\\"+o+\\\",\\\"+u+\\\"L-\\\"+a+\\\",\\\"+c+\\\"L-\\\"+i+\\\",\\\"+l+\\\"H-\\\"+r+\\\"L0,\\\"+s+\\\"Z\\\"}},hexagram:{n:18,f:function(t){var e=n.round(.66*t,2),r=n.round(.38*t,2),i=n.round(.76*t,2);return\\\"M-\\\"+i+\\\",0l-\\\"+r+\\\",-\\\"+e+\\\"h\\\"+i+\\\"l\\\"+r+\\\",-\\\"+e+\\\"l\\\"+r+\\\",\\\"+e+\\\"h\\\"+i+\\\"l-\\\"+r+\\\",\\\"+e+\\\"l\\\"+r+\\\",\\\"+e+\\\"h-\\\"+i+\\\"l-\\\"+r+\\\",\\\"+e+\\\"l-\\\"+r+\\\",-\\\"+e+\\\"h-\\\"+i+\\\"Z\\\"}},\\\"star-triangle-up\\\":{n:19,f:function(t){var e=n.round(t*Math.sqrt(3)*.8,2),r=n.round(.8*t,2),i=n.round(1.6*t,2),a=n.round(4*t,2),o=\\\"A \\\"+a+\\\",\\\"+a+\\\" 0 0 1 \\\";return\\\"M-\\\"+e+\\\",\\\"+r+o+e+\\\",\\\"+r+o+\\\"0,-\\\"+i+o+\\\"-\\\"+e+\\\",\\\"+r+\\\"Z\\\"}},\\\"star-triangle-down\\\":{n:20,f:function(t){var e=n.round(t*Math.sqrt(3)*.8,2),r=n.round(.8*t,2),i=n.round(1.6*t,2),a=n.round(4*t,2),o=\\\"A \\\"+a+\\\",\\\"+a+\\\" 0 0 1 \\\";return\\\"M\\\"+e+\\\",-\\\"+r+o+\\\"-\\\"+e+\\\",-\\\"+r+o+\\\"0,\\\"+i+o+e+\\\",-\\\"+r+\\\"Z\\\"}},\\\"star-square\\\":{n:21,f:function(t){var e=n.round(1.1*t,2),r=n.round(2*t,2),i=\\\"A \\\"+r+\\\",\\\"+r+\\\" 0 0 1 \\\";return\\\"M-\\\"+e+\\\",-\\\"+e+i+\\\"-\\\"+e+\\\",\\\"+e+i+e+\\\",\\\"+e+i+e+\\\",-\\\"+e+i+\\\"-\\\"+e+\\\",-\\\"+e+\\\"Z\\\"}},\\\"star-diamond\\\":{n:22,f:function(t){var e=n.round(1.4*t,2),r=n.round(1.9*t,2),i=\\\"A \\\"+r+\\\",\\\"+r+\\\" 0 0 1 \\\";return\\\"M-\\\"+e+\\\",0\\\"+i+\\\"0,\\\"+e+i+e+\\\",0\\\"+i+\\\"0,-\\\"+e+i+\\\"-\\\"+e+\\\",0Z\\\"}},\\\"diamond-tall\\\":{n:23,f:function(t){var e=n.round(.7*t,2),r=n.round(1.4*t,2);return\\\"M0,\\\"+r+\\\"L\\\"+e+\\\",0L0,-\\\"+r+\\\"L-\\\"+e+\\\",0Z\\\"}},\\\"diamond-wide\\\":{n:24,f:function(t){var e=n.round(1.4*t,2),r=n.round(.7*t,2);return\\\"M0,\\\"+r+\\\"L\\\"+e+\\\",0L0,-\\\"+r+\\\"L-\\\"+e+\\\",0Z\\\"}},hourglass:{n:25,f:function(t){var e=n.round(t,2);return\\\"M\\\"+e+\\\",\\\"+e+\\\"H-\\\"+e+\\\"L\\\"+e+\\\",-\\\"+e+\\\"H-\\\"+e+\\\"Z\\\"},noDot:!0},bowtie:{n:26,f:function(t){var e=n.round(t,2);return\\\"M\\\"+e+\\\",\\\"+e+\\\"V-\\\"+e+\\\"L-\\\"+e+\\\",\\\"+e+\\\"V-\\\"+e+\\\"Z\\\"},noDot:!0},\\\"circle-cross\\\":{n:27,f:function(t){var e=n.round(t,2);return\\\"M0,\\\"+e+\\\"V-\\\"+e+\\\"M\\\"+e+\\\",0H-\\\"+e+\\\"M\\\"+e+\\\",0A\\\"+e+\\\",\\\"+e+\\\" 0 1,1 0,-\\\"+e+\\\"A\\\"+e+\\\",\\\"+e+\\\" 0 0,1 \\\"+e+\\\",0Z\\\"},needLine:!0,noDot:!0},\\\"circle-x\\\":{n:28,f:function(t){var e=n.round(t,2),r=n.round(t/Math.sqrt(2),2);return\\\"M\\\"+r+\\\",\\\"+r+\\\"L-\\\"+r+\\\",-\\\"+r+\\\"M\\\"+r+\\\",-\\\"+r+\\\"L-\\\"+r+\\\",\\\"+r+\\\"M\\\"+e+\\\",0A\\\"+e+\\\",\\\"+e+\\\" 0 1,1 0,-\\\"+e+\\\"A\\\"+e+\\\",\\\"+e+\\\" 0 0,1 \\\"+e+\\\",0Z\\\"},needLine:!0,noDot:!0},\\\"square-cross\\\":{n:29,f:function(t){var e=n.round(t,2);return\\\"M0,\\\"+e+\\\"V-\\\"+e+\\\"M\\\"+e+\\\",0H-\\\"+e+\\\"M\\\"+e+\\\",\\\"+e+\\\"H-\\\"+e+\\\"V-\\\"+e+\\\"H\\\"+e+\\\"Z\\\"},needLine:!0,noDot:!0},\\\"square-x\\\":{n:30,f:function(t){var e=n.round(t,2);return\\\"M\\\"+e+\\\",\\\"+e+\\\"L-\\\"+e+\\\",-\\\"+e+\\\"M\\\"+e+\\\",-\\\"+e+\\\"L-\\\"+e+\\\",\\\"+e+\\\"M\\\"+e+\\\",\\\"+e+\\\"H-\\\"+e+\\\"V-\\\"+e+\\\"H\\\"+e+\\\"Z\\\"},needLine:!0,noDot:!0},\\\"diamond-cross\\\":{n:31,f:function(t){var e=n.round(1.3*t,2);return\\\"M\\\"+e+\\\",0L0,\\\"+e+\\\"L-\\\"+e+\\\",0L0,-\\\"+e+\\\"ZM0,-\\\"+e+\\\"V\\\"+e+\\\"M-\\\"+e+\\\",0H\\\"+e},needLine:!0,noDot:!0},\\\"diamond-x\\\":{n:32,f:function(t){var e=n.round(1.3*t,2),r=n.round(.65*t,2);return\\\"M\\\"+e+\\\",0L0,\\\"+e+\\\"L-\\\"+e+\\\",0L0,-\\\"+e+\\\"ZM-\\\"+r+\\\",-\\\"+r+\\\"L\\\"+r+\\\",\\\"+r+\\\"M-\\\"+r+\\\",\\\"+r+\\\"L\\\"+r+\\\",-\\\"+r},needLine:!0,noDot:!0},\\\"cross-thin\\\":{n:33,f:function(t){var e=n.round(1.4*t,2);return\\\"M0,\\\"+e+\\\"V-\\\"+e+\\\"M\\\"+e+\\\",0H-\\\"+e},needLine:!0,noDot:!0,noFill:!0},\\\"x-thin\\\":{n:34,f:function(t){var e=n.round(t,2);return\\\"M\\\"+e+\\\",\\\"+e+\\\"L-\\\"+e+\\\",-\\\"+e+\\\"M\\\"+e+\\\",-\\\"+e+\\\"L-\\\"+e+\\\",\\\"+e},needLine:!0,noDot:!0,noFill:!0},asterisk:{n:35,f:function(t){var e=n.round(1.2*t,2),r=n.round(.85*t,2);return\\\"M0,\\\"+e+\\\"V-\\\"+e+\\\"M\\\"+e+\\\",0H-\\\"+e+\\\"M\\\"+r+\\\",\\\"+r+\\\"L-\\\"+r+\\\",-\\\"+r+\\\"M\\\"+r+\\\",-\\\"+r+\\\"L-\\\"+r+\\\",\\\"+r},needLine:!0,noDot:!0,noFill:!0},hash:{n:36,f:function(t){var e=n.round(t/2,2),r=n.round(t,2);return\\\"M\\\"+e+\\\",\\\"+r+\\\"V-\\\"+r+\\\"m-\\\"+r+\\\",0V\\\"+r+\\\"M\\\"+r+\\\",\\\"+e+\\\"H-\\\"+r+\\\"m0,-\\\"+r+\\\"H\\\"+r},needLine:!0,noFill:!0},\\\"y-up\\\":{n:37,f:function(t){var e=n.round(1.2*t,2),r=n.round(1.6*t,2),i=n.round(.8*t,2);return\\\"M-\\\"+e+\\\",\\\"+i+\\\"L0,0M\\\"+e+\\\",\\\"+i+\\\"L0,0M0,-\\\"+r+\\\"L0,0\\\"},needLine:!0,noDot:!0,noFill:!0},\\\"y-down\\\":{n:38,f:function(t){var e=n.round(1.2*t,2),r=n.round(1.6*t,2),i=n.round(.8*t,2);return\\\"M-\\\"+e+\\\",-\\\"+i+\\\"L0,0M\\\"+e+\\\",-\\\"+i+\\\"L0,0M0,\\\"+r+\\\"L0,0\\\"},needLine:!0,noDot:!0,noFill:!0},\\\"y-left\\\":{n:39,f:function(t){var e=n.round(1.2*t,2),r=n.round(1.6*t,2),i=n.round(.8*t,2);return\\\"M\\\"+i+\\\",\\\"+e+\\\"L0,0M\\\"+i+\\\",-\\\"+e+\\\"L0,0M-\\\"+r+\\\",0L0,0\\\"},needLine:!0,noDot:!0,noFill:!0},\\\"y-right\\\":{n:40,f:function(t){var e=n.round(1.2*t,2),r=n.round(1.6*t,2),i=n.round(.8*t,2);return\\\"M-\\\"+i+\\\",\\\"+e+\\\"L0,0M-\\\"+i+\\\",-\\\"+e+\\\"L0,0M\\\"+r+\\\",0L0,0\\\"},needLine:!0,noDot:!0,noFill:!0},\\\"line-ew\\\":{n:41,f:function(t){var e=n.round(1.4*t,2);return\\\"M\\\"+e+\\\",0H-\\\"+e},needLine:!0,noDot:!0,noFill:!0},\\\"line-ns\\\":{n:42,f:function(t){var e=n.round(1.4*t,2);return\\\"M0,\\\"+e+\\\"V-\\\"+e},needLine:!0,noDot:!0,noFill:!0},\\\"line-ne\\\":{n:43,f:function(t){var e=n.round(t,2);return\\\"M\\\"+e+\\\",-\\\"+e+\\\"L-\\\"+e+\\\",\\\"+e},needLine:!0,noDot:!0,noFill:!0},\\\"line-nw\\\":{n:44,f:function(t){var e=n.round(t,2);return\\\"M\\\"+e+\\\",\\\"+e+\\\"L-\\\"+e+\\\",-\\\"+e},needLine:!0,noDot:!0,noFill:!0}}},{d3:157}],603:[function(t,e,r){\\\"use strict\\\";e.exports={visible:{valType:\\\"boolean\\\",editType:\\\"calc\\\"},type:{valType:\\\"enumerated\\\",values:[\\\"percent\\\",\\\"constant\\\",\\\"sqrt\\\",\\\"data\\\"],editType:\\\"calc\\\"},symmetric:{valType:\\\"boolean\\\",editType:\\\"calc\\\"},array:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},arrayminus:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},value:{valType:\\\"number\\\",min:0,dflt:10,editType:\\\"calc\\\"},valueminus:{valType:\\\"number\\\",min:0,dflt:10,editType:\\\"calc\\\"},traceref:{valType:\\\"integer\\\",min:0,dflt:0,editType:\\\"style\\\"},tracerefminus:{valType:\\\"integer\\\",min:0,dflt:0,editType:\\\"style\\\"},copy_ystyle:{valType:\\\"boolean\\\",editType:\\\"plot\\\"},copy_zstyle:{valType:\\\"boolean\\\",editType:\\\"style\\\"},color:{valType:\\\"color\\\",editType:\\\"style\\\"},thickness:{valType:\\\"number\\\",min:0,dflt:2,editType:\\\"style\\\"},width:{valType:\\\"number\\\",min:0,editType:\\\"plot\\\"},editType:\\\"calc\\\",_deprecated:{opacity:{valType:\\\"number\\\",editType:\\\"style\\\"}}}},{}],604:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"../../plots/cartesian/axes\\\"),o=t(\\\"../../lib\\\"),s=t(\\\"./compute_error\\\");function l(t,e,r,i){var l=e[\\\"error_\\\"+i]||{},c=[];if(l.visible&&-1!==[\\\"linear\\\",\\\"log\\\"].indexOf(r.type)){for(var u=s(l),f=0;f<t.length;f++){var h=t[f],p=h.i;if(void 0===p)p=f;else if(null===p)continue;var d=h[i];if(n(r.c2l(d))){var g=u(d,p);if(n(g[0])&&n(g[1])){var v=h[i+\\\"s\\\"]=d-g[0],m=h[i+\\\"h\\\"]=d+g[1];c.push(v,m)}}}var y=r._id,x=e._extremes[y],b=a.findExtremes(r,c,o.extendFlat({tozero:x.opts.tozero},{padded:!0}));x.min=x.min.concat(b.min),x.max=x.max.concat(b.max)}}e.exports=function(t){for(var e=t.calcdata,r=0;r<e.length;r++){var n=e[r],o=n[0].trace;if(!0===o.visible&&i.traceIs(o,\\\"errorBarsOK\\\")){var s=a.getFromId(t,o.xaxis),c=a.getFromId(t,o.yaxis);l(n,o,s,\\\"x\\\"),l(n,o,c,\\\"y\\\")}}}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"../../registry\\\":831,\\\"./compute_error\\\":605,\\\"fast-isnumeric\\\":224}],605:[function(t,e,r){\\\"use strict\\\";function n(t,e){return\\\"percent\\\"===t?function(t){return Math.abs(t*e/100)}:\\\"constant\\\"===t?function(){return Math.abs(e)}:\\\"sqrt\\\"===t?function(t){return Math.sqrt(Math.abs(t))}:void 0}e.exports=function(t){var e=t.type,r=t.symmetric;if(\\\"data\\\"===e){var i=t.array||[];if(r)return function(t,e){var r=+i[e];return[r,r]};var a=t.arrayminus||[];return function(t,e){var r=+i[e],n=+a[e];return isNaN(r)&&isNaN(n)?[NaN,NaN]:[n||0,r||0]}}var o=n(e,t.value),s=n(e,t.valueminus);return r||void 0===t.valueminus?function(t){var e=o(t);return[e,e]}:function(t){return[s(t),o(t)]}}},{}],606:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"../../lib\\\"),o=t(\\\"../../plot_api/plot_template\\\"),s=t(\\\"./attributes\\\");e.exports=function(t,e,r,l){var c=\\\"error_\\\"+l.axis,u=o.newContainer(e,c),f=t[c]||{};function h(t,e){return a.coerce(f,u,s,t,e)}if(!1!==h(\\\"visible\\\",void 0!==f.array||void 0!==f.value||\\\"sqrt\\\"===f.type)){var p=h(\\\"type\\\",\\\"array\\\"in f?\\\"data\\\":\\\"percent\\\"),d=!0;\\\"sqrt\\\"!==p&&(d=h(\\\"symmetric\\\",!((\\\"data\\\"===p?\\\"arrayminus\\\":\\\"valueminus\\\")in f))),\\\"data\\\"===p?(h(\\\"array\\\"),h(\\\"traceref\\\"),d||(h(\\\"arrayminus\\\"),h(\\\"tracerefminus\\\"))):\\\"percent\\\"!==p&&\\\"constant\\\"!==p||(h(\\\"value\\\"),d||h(\\\"valueminus\\\"));var g=\\\"copy_\\\"+l.inherit+\\\"style\\\";if(l.inherit)(e[\\\"error_\\\"+l.inherit]||{}).visible&&h(g,!(f.color||n(f.thickness)||n(f.width)));l.inherit&&u[g]||(h(\\\"color\\\",r),h(\\\"thickness\\\"),h(\\\"width\\\",i.traceIs(e,\\\"gl3d\\\")?0:4))}}},{\\\"../../lib\\\":703,\\\"../../plot_api/plot_template\\\":741,\\\"../../registry\\\":831,\\\"./attributes\\\":603,\\\"fast-isnumeric\\\":224}],607:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plot_api/edit_types\\\").overrideAll,a=t(\\\"./attributes\\\"),o={error_x:n.extendFlat({},a),error_y:n.extendFlat({},a)};delete o.error_x.copy_zstyle,delete o.error_y.copy_zstyle,delete o.error_y.copy_ystyle;var s={error_x:n.extendFlat({},a),error_y:n.extendFlat({},a),error_z:n.extendFlat({},a)};delete s.error_x.copy_ystyle,delete s.error_y.copy_ystyle,delete s.error_z.copy_ystyle,delete s.error_z.copy_zstyle,e.exports={moduleType:\\\"component\\\",name:\\\"errorbars\\\",schema:{traces:{scatter:o,bar:o,histogram:o,scatter3d:i(s,\\\"calc\\\",\\\"nested\\\"),scattergl:i(o,\\\"calc\\\",\\\"nested\\\")}},supplyDefaults:t(\\\"./defaults\\\"),calc:t(\\\"./calc\\\"),makeComputeError:t(\\\"./compute_error\\\"),plot:t(\\\"./plot\\\"),style:t(\\\"./style\\\"),hoverInfo:function(t,e,r){(e.error_y||{}).visible&&(r.yerr=t.yh-t.y,e.error_y.symmetric||(r.yerrneg=t.y-t.ys));(e.error_x||{}).visible&&(r.xerr=t.xh-t.x,e.error_x.symmetric||(r.xerrneg=t.x-t.xs))}}},{\\\"../../lib\\\":703,\\\"../../plot_api/edit_types\\\":734,\\\"./attributes\\\":603,\\\"./calc\\\":604,\\\"./compute_error\\\":605,\\\"./defaults\\\":606,\\\"./plot\\\":608,\\\"./style\\\":609}],608:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"fast-isnumeric\\\"),a=t(\\\"../drawing\\\"),o=t(\\\"../../traces/scatter/subtypes\\\");e.exports=function(t,e,r,s){var l=r.xaxis,c=r.yaxis,u=s&&s.duration>0;e.each(function(e){var f,h=e[0].trace,p=h.error_x||{},d=h.error_y||{};h.ids&&(f=function(t){return t.id});var g=o.hasMarkers(h)&&h.marker.maxdisplayed>0;d.visible||p.visible||(e=[]);var v=n.select(this).selectAll(\\\"g.errorbar\\\").data(e,f);if(v.exit().remove(),e.length){p.visible||v.selectAll(\\\"path.xerror\\\").remove(),d.visible||v.selectAll(\\\"path.yerror\\\").remove(),v.style(\\\"opacity\\\",1);var m=v.enter().append(\\\"g\\\").classed(\\\"errorbar\\\",!0);u&&m.style(\\\"opacity\\\",0).transition().duration(s.duration).style(\\\"opacity\\\",1),a.setClipUrl(v,r.layerClipId,t),v.each(function(t){var e=n.select(this),r=function(t,e,r){var n={x:e.c2p(t.x),y:r.c2p(t.y)};void 0!==t.yh&&(n.yh=r.c2p(t.yh),n.ys=r.c2p(t.ys),i(n.ys)||(n.noYS=!0,n.ys=r.c2p(t.ys,!0)));void 0!==t.xh&&(n.xh=e.c2p(t.xh),n.xs=e.c2p(t.xs),i(n.xs)||(n.noXS=!0,n.xs=e.c2p(t.xs,!0)));return n}(t,l,c);if(!g||t.vis){var a,o=e.select(\\\"path.yerror\\\");if(d.visible&&i(r.x)&&i(r.yh)&&i(r.ys)){var f=d.width;a=\\\"M\\\"+(r.x-f)+\\\",\\\"+r.yh+\\\"h\\\"+2*f+\\\"m-\\\"+f+\\\",0V\\\"+r.ys,r.noYS||(a+=\\\"m-\\\"+f+\\\",0h\\\"+2*f),!o.size()?o=e.append(\\\"path\\\").style(\\\"vector-effect\\\",\\\"non-scaling-stroke\\\").classed(\\\"yerror\\\",!0):u&&(o=o.transition().duration(s.duration).ease(s.easing)),o.attr(\\\"d\\\",a)}else o.remove();var h=e.select(\\\"path.xerror\\\");if(p.visible&&i(r.y)&&i(r.xh)&&i(r.xs)){var v=(p.copy_ystyle?d:p).width;a=\\\"M\\\"+r.xh+\\\",\\\"+(r.y-v)+\\\"v\\\"+2*v+\\\"m0,-\\\"+v+\\\"H\\\"+r.xs,r.noXS||(a+=\\\"m0,-\\\"+v+\\\"v\\\"+2*v),!h.size()?h=e.append(\\\"path\\\").style(\\\"vector-effect\\\",\\\"non-scaling-stroke\\\").classed(\\\"xerror\\\",!0):u&&(h=h.transition().duration(s.duration).ease(s.easing)),h.attr(\\\"d\\\",a)}else h.remove()}})}})}},{\\\"../../traces/scatter/subtypes\\\":1098,\\\"../drawing\\\":601,d3:157,\\\"fast-isnumeric\\\":224}],609:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../color\\\");e.exports=function(t){t.each(function(t){var e=t[0].trace,r=e.error_y||{},a=e.error_x||{},o=n.select(this);o.selectAll(\\\"path.yerror\\\").style(\\\"stroke-width\\\",r.thickness+\\\"px\\\").call(i.stroke,r.color),a.copy_ystyle&&(a=r),o.selectAll(\\\"path.xerror\\\").style(\\\"stroke-width\\\",a.thickness+\\\"px\\\").call(i.stroke,a.color)})}},{\\\"../color\\\":580,d3:157}],610:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/font_attributes\\\"),i=t(\\\"./layout_attributes\\\").hoverlabel,a=t(\\\"../../lib/extend\\\").extendFlat;e.exports={hoverlabel:{bgcolor:a({},i.bgcolor,{arrayOk:!0}),bordercolor:a({},i.bordercolor,{arrayOk:!0}),font:n({arrayOk:!0,editType:\\\"none\\\"}),align:a({},i.align,{arrayOk:!0}),namelength:a({},i.namelength,{arrayOk:!0}),editType:\\\"none\\\"}}},{\\\"../../lib/extend\\\":693,\\\"../../plots/font_attributes\\\":777,\\\"./layout_attributes\\\":620}],611:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../registry\\\");function a(t,e,r,i){i=i||n.identity,Array.isArray(t)&&(e[0][r]=i(t))}e.exports=function(t){var e=t.calcdata,r=t._fullLayout;function o(t){return function(e){return n.coerceHoverinfo({hoverinfo:e},{_module:t._module},r)}}for(var s=0;s<e.length;s++){var l=e[s],c=l[0].trace;if(!i.traceIs(c,\\\"pie-like\\\")){var u=i.traceIs(c,\\\"2dMap\\\")?a:n.fillArray;u(c.hoverinfo,l,\\\"hi\\\",o(c)),c.hovertemplate&&u(c.hovertemplate,l,\\\"ht\\\"),c.hoverlabel&&(u(c.hoverlabel.bgcolor,l,\\\"hbg\\\"),u(c.hoverlabel.bordercolor,l,\\\"hbc\\\"),u(c.hoverlabel.font.size,l,\\\"hts\\\"),u(c.hoverlabel.font.color,l,\\\"htc\\\"),u(c.hoverlabel.font.family,l,\\\"htf\\\"),u(c.hoverlabel.namelength,l,\\\"hnl\\\"),u(c.hoverlabel.align,l,\\\"hta\\\"))}}}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831}],612:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"./hover\\\").hover;e.exports=function(t,e,r){var a=n.getComponentMethod(\\\"annotations\\\",\\\"onClick\\\")(t,t._hoverdata);function o(){t.emit(\\\"plotly_click\\\",{points:t._hoverdata,event:e})}void 0!==r&&i(t,e,r,!0),t._hoverdata&&e&&e.target&&(a&&a.then?a.then(o):o(),e.stopImmediatePropagation&&e.stopImmediatePropagation())}},{\\\"../../registry\\\":831,\\\"./hover\\\":616}],613:[function(t,e,r){\\\"use strict\\\";e.exports={YANGLE:60,HOVERARROWSIZE:6,HOVERTEXTPAD:3,HOVERFONTSIZE:13,HOVERFONT:\\\"Arial, sans-serif\\\",HOVERMINTIME:50,HOVERID:\\\"-hover\\\"}},{}],614:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./attributes\\\"),a=t(\\\"./hoverlabel_defaults\\\");e.exports=function(t,e,r,o){var s=n.extendFlat({},o.hoverlabel);e.hovertemplate&&(s.namelength=-1),a(t,e,function(r,a){return n.coerce(t,e,i,r,a)},s)}},{\\\"../../lib\\\":703,\\\"./attributes\\\":610,\\\"./hoverlabel_defaults\\\":617}],615:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\");r.getSubplot=function(t){return t.subplot||t.xaxis+t.yaxis||t.geo},r.isTraceInSubplots=function(t,e){if(\\\"splom\\\"===t.type){for(var n=t.xaxes||[],i=t.yaxes||[],a=0;a<n.length;a++)for(var o=0;o<i.length;o++)if(-1!==e.indexOf(n[a]+i[o]))return!0;return!1}return-1!==e.indexOf(r.getSubplot(t))},r.flat=function(t,e){for(var r=new Array(t.length),n=0;n<t.length;n++)r[n]=e;return r},r.p2c=function(t,e){for(var r=new Array(t.length),n=0;n<t.length;n++)r[n]=t[n].p2c(e);return r},r.getDistanceFunction=function(t,e,n,i){return\\\"closest\\\"===t?i||r.quadrature(e,n):\\\"x\\\"===t?e:n},r.getClosest=function(t,e,r){if(!1!==r.index)r.index>=0&&r.index<t.length?r.distance=0:r.index=!1;else for(var n=0;n<t.length;n++){var i=e(t[n]);i<=r.distance&&(r.index=n,r.distance=i)}return r},r.inbox=function(t,e,r){return t*e<0||0===t?r:1/0},r.quadrature=function(t,e){return function(r){var n=t(r),i=e(r);return Math.sqrt(n*n+i*i)}},r.makeEventData=function(t,e,n){var i=\\\"index\\\"in t?t.index:t.pointNumber,a={data:e._input,fullData:e,curveNumber:e.index,pointNumber:i};if(e._indexToPoints){var o=e._indexToPoints[i];1===o.length?a.pointIndex=o[0]:a.pointIndices=o}else a.pointIndex=i;return e._module.eventData?a=e._module.eventData(a,t,e,n,i):(\\\"xVal\\\"in t?a.x=t.xVal:\\\"x\\\"in t&&(a.x=t.x),\\\"yVal\\\"in t?a.y=t.yVal:\\\"y\\\"in t&&(a.y=t.y),t.xa&&(a.xaxis=t.xa),t.ya&&(a.yaxis=t.ya),void 0!==t.zLabelVal&&(a.z=t.zLabelVal)),r.appendArrayPointValue(a,e,i),a},r.appendArrayPointValue=function(t,e,r){var i=e._arrayAttrs;if(i)for(var s=0;s<i.length;s++){var l=i[s],c=a(l);if(void 0===t[c]){var u=o(n.nestedProperty(e,l).get(),r);void 0!==u&&(t[c]=u)}}},r.appendArrayMultiPointValues=function(t,e,r){var i=e._arrayAttrs;if(i)for(var s=0;s<i.length;s++){var l=i[s],c=a(l);if(void 0===t[c]){for(var u=n.nestedProperty(e,l).get(),f=new Array(r.length),h=0;h<r.length;h++)f[h]=o(u,r[h]);t[c]=f}}};var i={ids:\\\"id\\\",locations:\\\"location\\\",labels:\\\"label\\\",values:\\\"value\\\",\\\"marker.colors\\\":\\\"color\\\",parents:\\\"parent\\\"};function a(t){return i[t]||t}function o(t,e){return Array.isArray(e)?Array.isArray(t)&&Array.isArray(t[e[0]])?t[e[0]][e[1]]:void 0:t[e]}},{\\\"../../lib\\\":703}],616:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"fast-isnumeric\\\"),a=t(\\\"tinycolor2\\\"),o=t(\\\"../../lib\\\"),s=t(\\\"../../lib/events\\\"),l=t(\\\"../../lib/svg_text_utils\\\"),c=t(\\\"../../lib/override_cursor\\\"),u=t(\\\"../drawing\\\"),f=t(\\\"../color\\\"),h=t(\\\"../dragelement\\\"),p=t(\\\"../../plots/cartesian/axes\\\"),d=t(\\\"../../registry\\\"),g=t(\\\"./helpers\\\"),v=t(\\\"./constants\\\"),m=v.YANGLE,y=Math.PI*m/180,x=1/Math.sin(y),b=Math.cos(y),_=Math.sin(y),w=v.HOVERARROWSIZE,k=v.HOVERTEXTPAD;r.hover=function(t,e,r,a){t=o.getGraphDiv(t),o.throttle(t._fullLayout._uid+v.HOVERID,v.HOVERMINTIME,function(){!function(t,e,r,a){r||(r=\\\"xy\\\");var l=Array.isArray(r)?r:[r],u=t._fullLayout,v=u._plots||[],m=v[r],y=u._has(\\\"cartesian\\\");if(m){var b=m.overlays.map(function(t){return t.id});l=l.concat(b)}for(var _=l.length,w=new Array(_),k=new Array(_),T=!1,L=0;L<_;L++){var z=l[L],O=v[z];if(O)T=!0,w[L]=p.getFromId(t,O.xaxis._id),k[L]=p.getFromId(t,O.yaxis._id);else{var I=u[z]._subplot;w[L]=I.xaxis,k[L]=I.yaxis}}var D=e.hovermode||u.hovermode;D&&!T&&(D=\\\"closest\\\");if(-1===[\\\"x\\\",\\\"y\\\",\\\"closest\\\"].indexOf(D)||!t.calcdata||t.querySelector(\\\".zoombox\\\")||t._dragging)return h.unhoverRaw(t,e);var P,R,F,B,N,j,V,U,H,q,G,Y,W,X=-1===u.hoverdistance?1/0:u.hoverdistance,Z=-1===u.spikedistance?1/0:u.spikedistance,$=[],J=[],K={hLinePoint:null,vLinePoint:null},Q=!1;if(Array.isArray(e))for(D=\\\"array\\\",F=0;F<e.length;F++)(N=t.calcdata[e[F].curveNumber||0])&&(j=N[0].trace,\\\"skip\\\"!==N[0].trace.hoverinfo&&(J.push(N),\\\"h\\\"===j.orientation&&(Q=!0)));else{for(B=0;B<t.calcdata.length;B++)N=t.calcdata[B],\\\"skip\\\"!==(j=N[0].trace).hoverinfo&&g.isTraceInSubplots(j,l)&&(J.push(N),\\\"h\\\"===j.orientation&&(Q=!0));var tt,et,rt=!e.target;if(rt)tt=\\\"xpx\\\"in e?e.xpx:w[0]._length/2,et=\\\"ypx\\\"in e?e.ypx:k[0]._length/2;else{if(!1===s.triggerHandler(t,\\\"plotly_beforehover\\\",e))return;var nt=e.target.getBoundingClientRect();if(tt=e.clientX-nt.left,et=e.clientY-nt.top,tt<0||tt>w[0]._length||et<0||et>k[0]._length)return h.unhoverRaw(t,e)}if(e.pointerX=tt+w[0]._offset,e.pointerY=et+k[0]._offset,P=\\\"xval\\\"in e?g.flat(l,e.xval):g.p2c(w,tt),R=\\\"yval\\\"in e?g.flat(l,e.yval):g.p2c(k,et),!i(P[0])||!i(R[0]))return o.warn(\\\"Fx.hover failed\\\",e,t),h.unhoverRaw(t,e)}var it=1/0;for(B=0;B<J.length;B++)if((N=J[B])&&N[0]&&N[0].trace&&!0===(j=N[0].trace).visible&&0!==j._length&&-1===[\\\"carpet\\\",\\\"contourcarpet\\\"].indexOf(j._module.name)){if(\\\"splom\\\"===j.type?V=l[U=0]:(V=g.getSubplot(j),U=l.indexOf(V)),H=D,Y={cd:N,trace:j,xa:w[U],ya:k[U],maxHoverDistance:X,maxSpikeDistance:Z,index:!1,distance:Math.min(it,X),spikeDistance:1/0,xSpike:void 0,ySpike:void 0,color:f.defaultLine,name:j.name,x0:void 0,x1:void 0,y0:void 0,y1:void 0,xLabelVal:void 0,yLabelVal:void 0,zLabelVal:void 0,text:void 0},u[V]&&(Y.subplot=u[V]._subplot),u._splomScenes&&u._splomScenes[j.uid]&&(Y.scene=u._splomScenes[j.uid]),W=$.length,\\\"array\\\"===H){var at=e[B];\\\"pointNumber\\\"in at?(Y.index=at.pointNumber,H=\\\"closest\\\"):(H=\\\"\\\",\\\"xval\\\"in at&&(q=at.xval,H=\\\"x\\\"),\\\"yval\\\"in at&&(G=at.yval,H=H?\\\"closest\\\":\\\"y\\\"))}else q=P[U],G=R[U];if(0!==X)if(j._module&&j._module.hoverPoints){var ot=j._module.hoverPoints(Y,q,G,H,u._hoverlayer);if(ot)for(var st,lt=0;lt<ot.length;lt++)st=ot[lt],i(st.x0)&&i(st.y0)&&$.push(S(st,D))}else o.log(\\\"Unrecognized trace type in hover:\\\",j);if(\\\"closest\\\"===D&&$.length>W&&($.splice(0,W),it=$[0].distance),y&&0!==Z&&0===$.length){Y.distance=Z,Y.index=!1;var ct=j._module.hoverPoints(Y,q,G,\\\"closest\\\",u._hoverlayer);if(ct&&(ct=ct.filter(function(t){return t.spikeDistance<=Z})),ct&&ct.length){var ut,ft=ct.filter(function(t){return t.xa.showspikes});if(ft.length){var ht=ft[0];i(ht.x0)&&i(ht.y0)&&(ut=vt(ht),(!K.vLinePoint||K.vLinePoint.spikeDistance>ut.spikeDistance)&&(K.vLinePoint=ut))}var pt=ct.filter(function(t){return t.ya.showspikes});if(pt.length){var dt=pt[0];i(dt.x0)&&i(dt.y0)&&(ut=vt(dt),(!K.hLinePoint||K.hLinePoint.spikeDistance>ut.spikeDistance)&&(K.hLinePoint=ut))}}}}function gt(t,e){for(var r,n=null,i=1/0,a=0;a<t.length;a++)(r=t[a].spikeDistance)<i&&r<=e&&(n=t[a],i=r);return n}function vt(t){return t?{xa:t.xa,ya:t.ya,x:void 0!==t.xSpike?t.xSpike:(t.x0+t.x1)/2,y:void 0!==t.ySpike?t.ySpike:(t.y0+t.y1)/2,distance:t.distance,spikeDistance:t.spikeDistance,curveNumber:t.trace.index,color:t.color,pointNumber:t.index}:null}var mt={fullLayout:u,container:u._hoverlayer,outerContainer:u._paperdiv,event:e},yt=t._spikepoints,xt={vLinePoint:K.vLinePoint,hLinePoint:K.hLinePoint};if(t._spikepoints=xt,y&&0!==Z&&0!==$.length){var bt=$.filter(function(t){return t.ya.showspikes}),_t=gt(bt,Z);K.hLinePoint=vt(_t);var wt=$.filter(function(t){return t.xa.showspikes}),kt=gt(wt,Z);K.vLinePoint=vt(kt)}if(0===$.length){var Tt=h.unhoverRaw(t,e);return!y||null===K.hLinePoint&&null===K.vLinePoint||C(yt)&&E(K,mt),Tt}y&&C(yt)&&E(K,mt);$.sort(function(t,e){return t.distance-e.distance});var At=t._hoverdata,Mt=[];for(F=0;F<$.length;F++){var St=$[F],Et=g.makeEventData(St,St.trace,St.cd);if(!1!==St.hovertemplate){var Ct=!1;St.cd[St.index]&&St.cd[St.index].ht&&(Ct=St.cd[St.index].ht),St.hovertemplate=Ct||St.trace.hovertemplate||!1}St.eventData=[Et],Mt.push(Et)}t._hoverdata=Mt;var Lt=\\\"y\\\"===D&&(J.length>1||$.length>1)||\\\"closest\\\"===D&&Q&&$.length>1,zt=f.combine(u.plot_bgcolor||f.background,u.paper_bgcolor),Ot={hovermode:D,rotateLabels:Lt,bgColor:zt,container:u._hoverlayer,outerContainer:u._paperdiv,commonLabelOpts:u.hoverlabel,hoverdistance:u.hoverdistance},It=A($,Ot,t);if(function(t,e,r){var n,i,a,o,s,l,c,u=0,f=1,h=t.size(),p=new Array(h);function d(t){var e=t[0],r=t[t.length-1];if(i=e.pmin-e.pos-e.dp+e.size,a=r.pos+r.dp+r.size-e.pmax,i>.01){for(s=t.length-1;s>=0;s--)t[s].dp+=i;n=!1}if(!(a<.01)){if(i<-.01){for(s=t.length-1;s>=0;s--)t[s].dp-=a;n=!1}if(n){var c=0;for(o=0;o<t.length;o++)(l=t[o]).pos+l.dp+l.size>e.pmax&&c++;for(o=t.length-1;o>=0&&!(c<=0);o--)(l=t[o]).pos>e.pmax-1&&(l.del=!0,c--);for(o=0;o<t.length&&!(c<=0);o++)if((l=t[o]).pos<e.pmin+1)for(l.del=!0,c--,a=2*l.size,s=t.length-1;s>=0;s--)t[s].dp-=a;for(o=t.length-1;o>=0&&!(c<=0);o--)(l=t[o]).pos+l.dp+l.size>e.pmax&&(l.del=!0,c--)}}}for(t.each(function(t,n){var i=t[e],a=\\\"x\\\"===i._id.charAt(0),o=i.range;!n&&o&&o[0]>o[1]!==a&&(f=-1),p[n]=[{datum:t,i:n,traceIndex:t.trace.index,dp:0,pos:t.pos,posref:t.posref,size:t.by*(a?x:1)/2,pmin:0,pmax:a?r.width:r.height}]}),p.sort(function(t,e){return t[0].posref-e[0].posref||f*(e[0].traceIndex-t[0].traceIndex)});!n&&u<=h;){for(u++,n=!0,o=0;o<p.length-1;){var g=p[o],v=p[o+1],m=g[g.length-1],y=v[0];if((i=m.pos+m.dp+m.size-y.pos-y.dp+y.size)>.01&&m.pmin===y.pmin&&m.pmax===y.pmax){for(s=v.length-1;s>=0;s--)v[s].dp+=i;for(g.push.apply(g,v),p.splice(o+1,1),c=0,s=g.length-1;s>=0;s--)c+=g[s].dp;for(a=c/g.length,s=g.length-1;s>=0;s--)g[s].dp-=a;n=!1}else o++}p.forEach(d)}for(o=p.length-1;o>=0;o--){var b=p[o];for(s=b.length-1;s>=0;s--){var _=b[s],w=_.datum;w.offset=_.dp,w.del=_.del}}}(It,Lt?\\\"xa\\\":\\\"ya\\\",u),M(It,Lt),e.target&&e.target.tagName){var Dt=d.getComponentMethod(\\\"annotations\\\",\\\"hasClickToShow\\\")(t,Mt);c(n.select(e.target),Dt?\\\"pointer\\\":\\\"\\\")}if(!e.target||a||!function(t,e,r){if(!r||r.length!==t._hoverdata.length)return!0;for(var n=r.length-1;n>=0;n--){var i=r[n],a=t._hoverdata[n];if(i.curveNumber!==a.curveNumber||String(i.pointNumber)!==String(a.pointNumber)||String(i.pointNumbers)!==String(a.pointNumbers))return!0}return!1}(t,0,At))return;At&&t.emit(\\\"plotly_unhover\\\",{event:e,points:At});t.emit(\\\"plotly_hover\\\",{event:e,points:t._hoverdata,xaxes:w,yaxes:k,xvals:P,yvals:R})}(t,e,r,a)})},r.loneHover=function(t,e){var r=!0;Array.isArray(t)||(r=!1,t=[t]);var i=t.map(function(t){return{color:t.color||f.defaultLine,x0:t.x0||t.x||0,x1:t.x1||t.x||0,y0:t.y0||t.y||0,y1:t.y1||t.y||0,xLabel:t.xLabel,yLabel:t.yLabel,zLabel:t.zLabel,text:t.text,name:t.name,idealAlign:t.idealAlign,borderColor:t.borderColor,fontFamily:t.fontFamily,fontSize:t.fontSize,fontColor:t.fontColor,nameLength:t.nameLength,textAlign:t.textAlign,trace:t.trace||{index:0,hoverinfo:\\\"\\\"},xa:{_offset:0},ya:{_offset:0},index:0,hovertemplate:t.hovertemplate||!1,eventData:t.eventData||!1,hovertemplateLabels:t.hovertemplateLabels||!1}}),a=n.select(e.container),o=e.outerContainer?n.select(e.outerContainer):a,s={hovermode:\\\"closest\\\",rotateLabels:!1,bgColor:e.bgColor||f.background,container:a,outerContainer:o},l=A(i,s,e.gd),c=0,u=0;return l.sort(function(t,e){return t.y0-e.y0}).each(function(t,r){var n=t.y0-t.by/2;t.offset=n-5<c?c-n+5:0,c=n+t.by+t.offset,r===e.anchorIndex&&(u=t.offset)}).each(function(t){t.offset-=u}),M(l,s.rotateLabels),r?l:l.node()};var T=/<extra>([\\\\s\\\\S]*)<\\\\/extra>/;function A(t,e,r){var i=r._fullLayout,a=e.hovermode,s=e.rotateLabels,c=e.bgColor,h=e.container,p=e.outerContainer,d=e.commonLabelOpts||{},g=e.fontFamily||v.HOVERFONT,y=e.fontSize||v.HOVERFONTSIZE,x=t[0],b=x.xa,_=x.ya,A=\\\"y\\\"===a?\\\"yLabel\\\":\\\"xLabel\\\",M=x[A],S=(String(M)||\\\"\\\").split(\\\" \\\")[0],E=p.node().getBoundingClientRect(),C=E.top,z=E.width,O=E.height,I=void 0!==M&&x.distance<=e.hoverdistance&&(\\\"x\\\"===a||\\\"y\\\"===a);if(I){var D,P,R=!0;for(D=0;D<t.length;D++)if(R&&void 0===t[D].zLabel&&(R=!1),P=t[D].hoverinfo||t[D].trace.hoverinfo){var F=Array.isArray(P)?P:P.split(\\\"+\\\");if(-1===F.indexOf(\\\"all\\\")&&-1===F.indexOf(a)){I=!1;break}}R&&(I=!1)}var B=h.selectAll(\\\"g.axistext\\\").data(I?[0]:[]);B.enter().append(\\\"g\\\").classed(\\\"axistext\\\",!0),B.exit().remove(),B.each(function(){var e=n.select(this),i=o.ensureSingle(e,\\\"path\\\",\\\"\\\",function(t){t.style({\\\"stroke-width\\\":\\\"1px\\\"})}),s=o.ensureSingle(e,\\\"text\\\",\\\"\\\",function(t){t.attr(\\\"data-notex\\\",1)}),c=d.bgcolor||f.defaultLine,h=d.bordercolor||f.contrast(c),p=f.contrast(c);i.style({fill:c,stroke:h}),s.text(M).call(u.font,d.font.family||g,d.font.size||y,d.font.color||p).call(l.positionText,0,0).call(l.convertToTspans,r),e.attr(\\\"transform\\\",\\\"\\\");var v=s.node().getBoundingClientRect();if(\\\"x\\\"===a){s.attr(\\\"text-anchor\\\",\\\"middle\\\").call(l.positionText,0,\\\"top\\\"===b.side?C-v.bottom-w-k:C-v.top+w+k);var m=\\\"top\\\"===b.side?\\\"-\\\":\\\"\\\";i.attr(\\\"d\\\",\\\"M0,0L\\\"+w+\\\",\\\"+m+w+\\\"H\\\"+(k+v.width/2)+\\\"v\\\"+m+(2*k+v.height)+\\\"H-\\\"+(k+v.width/2)+\\\"V\\\"+m+w+\\\"H-\\\"+w+\\\"Z\\\"),e.attr(\\\"transform\\\",\\\"translate(\\\"+(b._offset+(x.x0+x.x1)/2)+\\\",\\\"+(_._offset+(\\\"top\\\"===b.side?0:_._length))+\\\")\\\")}else{s.attr(\\\"text-anchor\\\",\\\"right\\\"===_.side?\\\"start\\\":\\\"end\\\").call(l.positionText,(\\\"right\\\"===_.side?1:-1)*(k+w),C-v.top-v.height/2);var T=\\\"right\\\"===_.side?\\\"\\\":\\\"-\\\";i.attr(\\\"d\\\",\\\"M0,0L\\\"+T+w+\\\",\\\"+w+\\\"V\\\"+(k+v.height/2)+\\\"h\\\"+T+(2*k+v.width)+\\\"V-\\\"+(k+v.height/2)+\\\"H\\\"+T+w+\\\"V-\\\"+w+\\\"Z\\\"),e.attr(\\\"transform\\\",\\\"translate(\\\"+(b._offset+(\\\"right\\\"===_.side?b._length:0))+\\\",\\\"+(_._offset+(x.y0+x.y1)/2)+\\\")\\\")}t=t.filter(function(t){return void 0!==t.zLabelVal||(t[A]||\\\"\\\").split(\\\" \\\")[0]===S})});var N=h.selectAll(\\\"g.hovertext\\\").data(t,function(t){return[t.trace.index,t.index,t.x0,t.y0,t.name,t.attr,t.xa,t.ya||\\\"\\\"].join(\\\",\\\")});return N.enter().append(\\\"g\\\").classed(\\\"hovertext\\\",!0).each(function(){var t=n.select(this);t.append(\\\"rect\\\").call(f.fill,f.addOpacity(c,.8)),t.append(\\\"text\\\").classed(\\\"name\\\",!0),t.append(\\\"path\\\").style(\\\"stroke-width\\\",\\\"1px\\\"),t.append(\\\"text\\\").classed(\\\"nums\\\",!0).call(u.font,g,y)}),N.exit().remove(),N.each(function(t){var e=n.select(this).attr(\\\"transform\\\",\\\"\\\"),h=\\\"\\\",p=\\\"\\\",d=t.bgcolor||t.color,v=f.combine(f.opacity(d)?d:f.defaultLine,c),x=f.combine(f.opacity(t.color)?t.color:f.defaultLine,c),b=t.borderColor||f.contrast(v);void 0!==t.nameOverride&&(t.name=t.nameOverride),t.name&&(t.trace._meta&&(t.name=o.templateString(t.name,t.trace._meta)),h=L(t.name,t.nameLength)),void 0!==t.zLabel?(void 0!==t.xLabel&&(p+=\\\"x: \\\"+t.xLabel+\\\"<br>\\\"),void 0!==t.yLabel&&(p+=\\\"y: \\\"+t.yLabel+\\\"<br>\\\"),p+=(p?\\\"z: \\\":\\\"\\\")+t.zLabel):I&&t[a+\\\"Label\\\"]===M?p=t[(\\\"x\\\"===a?\\\"y\\\":\\\"x\\\")+\\\"Label\\\"]||\\\"\\\":void 0===t.xLabel?void 0!==t.yLabel&&\\\"scattercarpet\\\"!==t.trace.type&&(p=t.yLabel):p=void 0===t.yLabel?t.xLabel:\\\"(\\\"+t.xLabel+\\\", \\\"+t.yLabel+\\\")\\\",!t.text&&0!==t.text||Array.isArray(t.text)||(p+=(p?\\\"<br>\\\":\\\"\\\")+t.text),void 0!==t.extraText&&(p+=(p?\\\"<br>\\\":\\\"\\\")+t.extraText),\\\"\\\"!==p||t.hovertemplate||(\\\"\\\"===h&&e.remove(),p=h);var _=i._d3locale,A=t.hovertemplate||!1,S=t.hovertemplateLabels||t,E=t.eventData[0]||{};A&&(p=(p=o.hovertemplateString(A,S,_,E,t.trace._meta)).replace(T,function(e,r){return h=L(r,t.nameLength),\\\"\\\"}));var D=e.select(\\\"text.nums\\\").call(u.font,t.fontFamily||g,t.fontSize||y,t.fontColor||b).text(p).attr(\\\"data-notex\\\",1).call(l.positionText,0,0).call(l.convertToTspans,r),P=e.select(\\\"text.name\\\"),R=0,F=0;if(h&&h!==p){P.call(u.font,t.fontFamily||g,t.fontSize||y,x).text(h).attr(\\\"data-notex\\\",1).call(l.positionText,0,0).call(l.convertToTspans,r);var B=P.node().getBoundingClientRect();R=B.width+2*k,F=B.height+2*k}else P.remove(),e.select(\\\"rect\\\").remove();e.select(\\\"path\\\").style({fill:v,stroke:b});var N,j,V=D.node().getBoundingClientRect(),U=t.xa._offset+(t.x0+t.x1)/2,H=t.ya._offset+(t.y0+t.y1)/2,q=Math.abs(t.x1-t.x0),G=Math.abs(t.y1-t.y0),Y=V.width+w+k+R;if(t.ty0=C-V.top,t.bx=V.width+2*k,t.by=Math.max(V.height+2*k,F),t.anchor=\\\"start\\\",t.txwidth=V.width,t.tx2width=R,t.offset=0,s)t.pos=U,N=H+G/2+Y<=O,j=H-G/2-Y>=0,\\\"top\\\"!==t.idealAlign&&N||!j?N?(H+=G/2,t.anchor=\\\"start\\\"):t.anchor=\\\"middle\\\":(H-=G/2,t.anchor=\\\"end\\\");else if(t.pos=H,N=U+q/2+Y<=z,j=U-q/2-Y>=0,\\\"left\\\"!==t.idealAlign&&N||!j)if(N)U+=q/2,t.anchor=\\\"start\\\";else{t.anchor=\\\"middle\\\";var W=Y/2,X=U+W-z,Z=U-W;X>0&&(U-=X),Z<0&&(U+=-Z)}else U-=q/2,t.anchor=\\\"end\\\";D.attr(\\\"text-anchor\\\",t.anchor),R&&P.attr(\\\"text-anchor\\\",t.anchor),e.attr(\\\"transform\\\",\\\"translate(\\\"+U+\\\",\\\"+H+\\\")\\\"+(s?\\\"rotate(\\\"+m+\\\")\\\":\\\"\\\"))}),N}function M(t,e){t.each(function(t){var r=n.select(this);if(t.del)return r.remove();var i=r.select(\\\"text.nums\\\"),a=t.anchor,o=\\\"end\\\"===a?-1:1,s={start:1,end:-1,middle:0}[a],c=s*(w+k),f=c+s*(t.txwidth+k),h=0,p=t.offset;\\\"middle\\\"===a&&(c-=t.tx2width/2,f+=t.txwidth/2+k),e&&(p*=-_,h=t.offset*b),r.select(\\\"path\\\").attr(\\\"d\\\",\\\"middle\\\"===a?\\\"M-\\\"+(t.bx/2+t.tx2width/2)+\\\",\\\"+(p-t.by/2)+\\\"h\\\"+t.bx+\\\"v\\\"+t.by+\\\"h-\\\"+t.bx+\\\"Z\\\":\\\"M0,0L\\\"+(o*w+h)+\\\",\\\"+(w+p)+\\\"v\\\"+(t.by/2-w)+\\\"h\\\"+o*t.bx+\\\"v-\\\"+t.by+\\\"H\\\"+(o*w+h)+\\\"V\\\"+(p-w)+\\\"Z\\\");var d=c+h,g=p+t.ty0-t.by/2+k,v=t.textAlign||\\\"auto\\\";\\\"auto\\\"!==v&&(\\\"left\\\"===v&&\\\"start\\\"!==a?(i.attr(\\\"text-anchor\\\",\\\"start\\\"),d=\\\"middle\\\"===a?-t.bx/2-t.tx2width/2+k:-t.bx-k):\\\"right\\\"===v&&\\\"end\\\"!==a&&(i.attr(\\\"text-anchor\\\",\\\"end\\\"),d=\\\"middle\\\"===a?t.bx/2-t.tx2width/2-k:t.bx+k)),i.call(l.positionText,d,g),t.tx2width&&(r.select(\\\"text.name\\\").call(l.positionText,f+s*k+h,p+t.ty0-t.by/2+k),r.select(\\\"rect\\\").call(u.setRect,f+(s-1)*t.tx2width/2+h,p-t.by/2-1,t.tx2width,t.by+2))})}function S(t,e){var r=t.index,n=t.trace||{},a=t.cd[0],s=t.cd[r]||{};function l(t){return t||i(t)&&0===t}var c=Array.isArray(r)?function(t,e){var i=o.castOption(a,r,t);return l(i)?i:o.extractOption({},n,\\\"\\\",e)}:function(t,e){return o.extractOption(s,n,t,e)};function u(e,r,n){var i=c(r,n);l(i)&&(t[e]=i)}if(u(\\\"hoverinfo\\\",\\\"hi\\\",\\\"hoverinfo\\\"),u(\\\"bgcolor\\\",\\\"hbg\\\",\\\"hoverlabel.bgcolor\\\"),u(\\\"borderColor\\\",\\\"hbc\\\",\\\"hoverlabel.bordercolor\\\"),u(\\\"fontFamily\\\",\\\"htf\\\",\\\"hoverlabel.font.family\\\"),u(\\\"fontSize\\\",\\\"hts\\\",\\\"hoverlabel.font.size\\\"),u(\\\"fontColor\\\",\\\"htc\\\",\\\"hoverlabel.font.color\\\"),u(\\\"nameLength\\\",\\\"hnl\\\",\\\"hoverlabel.namelength\\\"),u(\\\"textAlign\\\",\\\"hta\\\",\\\"hoverlabel.align\\\"),t.posref=\\\"y\\\"===e||\\\"closest\\\"===e&&\\\"h\\\"===n.orientation?t.xa._offset+(t.x0+t.x1)/2:t.ya._offset+(t.y0+t.y1)/2,t.x0=o.constrain(t.x0,0,t.xa._length),t.x1=o.constrain(t.x1,0,t.xa._length),t.y0=o.constrain(t.y0,0,t.ya._length),t.y1=o.constrain(t.y1,0,t.ya._length),void 0!==t.xLabelVal&&(t.xLabel=\\\"xLabel\\\"in t?t.xLabel:p.hoverLabelText(t.xa,t.xLabelVal),t.xVal=t.xa.c2d(t.xLabelVal)),void 0!==t.yLabelVal&&(t.yLabel=\\\"yLabel\\\"in t?t.yLabel:p.hoverLabelText(t.ya,t.yLabelVal),t.yVal=t.ya.c2d(t.yLabelVal)),void 0!==t.zLabelVal&&void 0===t.zLabel&&(t.zLabel=String(t.zLabelVal)),!(isNaN(t.xerr)||\\\"log\\\"===t.xa.type&&t.xerr<=0)){var f=p.tickText(t.xa,t.xa.c2l(t.xerr),\\\"hover\\\").text;void 0!==t.xerrneg?t.xLabel+=\\\" +\\\"+f+\\\" / -\\\"+p.tickText(t.xa,t.xa.c2l(t.xerrneg),\\\"hover\\\").text:t.xLabel+=\\\" \\\\xb1 \\\"+f,\\\"x\\\"===e&&(t.distance+=1)}if(!(isNaN(t.yerr)||\\\"log\\\"===t.ya.type&&t.yerr<=0)){var h=p.tickText(t.ya,t.ya.c2l(t.yerr),\\\"hover\\\").text;void 0!==t.yerrneg?t.yLabel+=\\\" +\\\"+h+\\\" / -\\\"+p.tickText(t.ya,t.ya.c2l(t.yerrneg),\\\"hover\\\").text:t.yLabel+=\\\" \\\\xb1 \\\"+h,\\\"y\\\"===e&&(t.distance+=1)}var d=t.hoverinfo||t.trace.hoverinfo;return d&&\\\"all\\\"!==d&&(-1===(d=Array.isArray(d)?d:d.split(\\\"+\\\")).indexOf(\\\"x\\\")&&(t.xLabel=void 0),-1===d.indexOf(\\\"y\\\")&&(t.yLabel=void 0),-1===d.indexOf(\\\"z\\\")&&(t.zLabel=void 0),-1===d.indexOf(\\\"text\\\")&&(t.text=void 0),-1===d.indexOf(\\\"name\\\")&&(t.name=void 0)),t}function E(t,e){var r,n,i=e.container,o=e.fullLayout,s=e.event,l=!!t.hLinePoint,c=!!t.vLinePoint;if(i.selectAll(\\\".spikeline\\\").remove(),c||l){var h=f.combine(o.plot_bgcolor,o.paper_bgcolor);if(l){var p,d,g=t.hLinePoint;r=g&&g.xa,\\\"cursor\\\"===(n=g&&g.ya).spikesnap?(p=s.pointerX,d=s.pointerY):(p=r._offset+g.x,d=n._offset+g.y);var v,m,y=a.readability(g.color,h)<1.5?f.contrast(h):g.color,x=n.spikemode,b=n.spikethickness,_=n.spikecolor||y,w=n._boundingBox,k=(w.left+w.right)/2<p?w.right:w.left;-1===x.indexOf(\\\"toaxis\\\")&&-1===x.indexOf(\\\"across\\\")||(-1!==x.indexOf(\\\"toaxis\\\")&&(v=k,m=p),-1!==x.indexOf(\\\"across\\\")&&(v=n._counterSpan[0],m=n._counterSpan[1]),i.insert(\\\"line\\\",\\\":first-child\\\").attr({x1:v,x2:m,y1:d,y2:d,\\\"stroke-width\\\":b,stroke:_,\\\"stroke-dasharray\\\":u.dashStyle(n.spikedash,b)}).classed(\\\"spikeline\\\",!0).classed(\\\"crisp\\\",!0),i.insert(\\\"line\\\",\\\":first-child\\\").attr({x1:v,x2:m,y1:d,y2:d,\\\"stroke-width\\\":b+2,stroke:h}).classed(\\\"spikeline\\\",!0).classed(\\\"crisp\\\",!0)),-1!==x.indexOf(\\\"marker\\\")&&i.insert(\\\"circle\\\",\\\":first-child\\\").attr({cx:k+(\\\"right\\\"!==n.side?b:-b),cy:d,r:b,fill:_}).classed(\\\"spikeline\\\",!0)}if(c){var T,A,M=t.vLinePoint;r=M&&M.xa,n=M&&M.ya,\\\"cursor\\\"===r.spikesnap?(T=s.pointerX,A=s.pointerY):(T=r._offset+M.x,A=n._offset+M.y);var S,E,C=a.readability(M.color,h)<1.5?f.contrast(h):M.color,L=r.spikemode,z=r.spikethickness,O=r.spikecolor||C,I=r._boundingBox,D=(I.top+I.bottom)/2<A?I.bottom:I.top;-1===L.indexOf(\\\"toaxis\\\")&&-1===L.indexOf(\\\"across\\\")||(-1!==L.indexOf(\\\"toaxis\\\")&&(S=D,E=A),-1!==L.indexOf(\\\"across\\\")&&(S=r._counterSpan[0],E=r._counterSpan[1]),i.insert(\\\"line\\\",\\\":first-child\\\").attr({x1:T,x2:T,y1:S,y2:E,\\\"stroke-width\\\":z,stroke:O,\\\"stroke-dasharray\\\":u.dashStyle(r.spikedash,z)}).classed(\\\"spikeline\\\",!0).classed(\\\"crisp\\\",!0),i.insert(\\\"line\\\",\\\":first-child\\\").attr({x1:T,x2:T,y1:S,y2:E,\\\"stroke-width\\\":z+2,stroke:h}).classed(\\\"spikeline\\\",!0).classed(\\\"crisp\\\",!0)),-1!==L.indexOf(\\\"marker\\\")&&i.insert(\\\"circle\\\",\\\":first-child\\\").attr({cx:T,cy:D-(\\\"top\\\"!==r.side?z:-z),r:z,fill:O}).classed(\\\"spikeline\\\",!0)}}}function C(t,e){return!e||(e.vLinePoint!==t._spikepoints.vLinePoint||e.hLinePoint!==t._spikepoints.hLinePoint)}function L(t,e){return l.plainText(t||\\\"\\\",{len:e,allowedTags:[\\\"br\\\",\\\"sub\\\",\\\"sup\\\",\\\"b\\\",\\\"i\\\",\\\"em\\\"]})}},{\\\"../../lib\\\":703,\\\"../../lib/events\\\":692,\\\"../../lib/override_cursor\\\":714,\\\"../../lib/svg_text_utils\\\":727,\\\"../../plots/cartesian/axes\\\":751,\\\"../../registry\\\":831,\\\"../color\\\":580,\\\"../dragelement\\\":598,\\\"../drawing\\\":601,\\\"./constants\\\":613,\\\"./helpers\\\":615,d3:157,\\\"fast-isnumeric\\\":224,tinycolor2:524}],617:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\");e.exports=function(t,e,r,i){r(\\\"hoverlabel.bgcolor\\\",(i=i||{}).bgcolor),r(\\\"hoverlabel.bordercolor\\\",i.bordercolor),r(\\\"hoverlabel.namelength\\\",i.namelength),n.coerceFont(r,\\\"hoverlabel.font\\\",i.font),r(\\\"hoverlabel.align\\\",i.align)}},{\\\"../../lib\\\":703}],618:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){t=t||{};(e=e||{}).description&&e.description;var r=e.keys||[];if(r.length>0){for(var n=[],i=0;i<r.length;i++)n[i]=\\\"`\\\"+r[i]+\\\"`\\\";\\\"Finally, the template string has access to \\\",1===r.length?\\\"variable \\\"+n[0]:\\\"variables \\\"+n.slice(0,-1).join(\\\", \\\")+\\\" and \\\"+n.slice(-1)+\\\".\\\"}var a={valType:\\\"string\\\",dflt:\\\"\\\",editType:t.editType||\\\"none\\\"};return!1!==t.arrayOk&&(a.arrayOk=!0),a}},{}],619:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../dragelement\\\"),o=t(\\\"./helpers\\\"),s=t(\\\"./layout_attributes\\\"),l=t(\\\"./hover\\\");e.exports={moduleType:\\\"component\\\",name:\\\"fx\\\",constants:t(\\\"./constants\\\"),schema:{layout:s},attributes:t(\\\"./attributes\\\"),layoutAttributes:s,supplyLayoutGlobalDefaults:t(\\\"./layout_global_defaults\\\"),supplyDefaults:t(\\\"./defaults\\\"),supplyLayoutDefaults:t(\\\"./layout_defaults\\\"),calc:t(\\\"./calc\\\"),getDistanceFunction:o.getDistanceFunction,getClosest:o.getClosest,inbox:o.inbox,quadrature:o.quadrature,appendArrayPointValue:o.appendArrayPointValue,castHoverOption:function(t,e,r){return i.castOption(t,e,\\\"hoverlabel.\\\"+r)},castHoverinfo:function(t,e,r){return i.castOption(t,r,\\\"hoverinfo\\\",function(r){return i.coerceHoverinfo({hoverinfo:r},{_module:t._module},e)})},hover:l.hover,unhover:a.unhover,loneHover:l.loneHover,loneUnhover:function(t){var e=i.isD3Selection(t)?t:n.select(t);e.selectAll(\\\"g.hovertext\\\").remove(),e.selectAll(\\\".spikeline\\\").remove()},click:t(\\\"./click\\\")}},{\\\"../../lib\\\":703,\\\"../dragelement\\\":598,\\\"./attributes\\\":610,\\\"./calc\\\":611,\\\"./click\\\":612,\\\"./constants\\\":613,\\\"./defaults\\\":614,\\\"./helpers\\\":615,\\\"./hover\\\":616,\\\"./layout_attributes\\\":620,\\\"./layout_defaults\\\":621,\\\"./layout_global_defaults\\\":622,d3:157}],620:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./constants\\\"),i=t(\\\"../../plots/font_attributes\\\")({editType:\\\"none\\\"});i.family.dflt=n.HOVERFONT,i.size.dflt=n.HOVERFONTSIZE,e.exports={clickmode:{valType:\\\"flaglist\\\",flags:[\\\"event\\\",\\\"select\\\"],dflt:\\\"event\\\",editType:\\\"plot\\\",extras:[\\\"none\\\"]},dragmode:{valType:\\\"enumerated\\\",values:[\\\"zoom\\\",\\\"pan\\\",\\\"select\\\",\\\"lasso\\\",\\\"orbit\\\",\\\"turntable\\\",!1],dflt:\\\"zoom\\\",editType:\\\"modebar\\\"},hovermode:{valType:\\\"enumerated\\\",values:[\\\"x\\\",\\\"y\\\",\\\"closest\\\",!1],editType:\\\"modebar\\\"},hoverdistance:{valType:\\\"integer\\\",min:-1,dflt:20,editType:\\\"none\\\"},spikedistance:{valType:\\\"integer\\\",min:-1,dflt:20,editType:\\\"none\\\"},hoverlabel:{bgcolor:{valType:\\\"color\\\",editType:\\\"none\\\"},bordercolor:{valType:\\\"color\\\",editType:\\\"none\\\"},font:i,align:{valType:\\\"enumerated\\\",values:[\\\"left\\\",\\\"right\\\",\\\"auto\\\"],dflt:\\\"auto\\\",editType:\\\"none\\\"},namelength:{valType:\\\"integer\\\",min:-1,dflt:15,editType:\\\"none\\\"},editType:\\\"none\\\"},selectdirection:{valType:\\\"enumerated\\\",values:[\\\"h\\\",\\\"v\\\",\\\"d\\\",\\\"any\\\"],dflt:\\\"any\\\",editType:\\\"none\\\"}}},{\\\"../../plots/font_attributes\\\":777,\\\"./constants\\\":613}],621:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./layout_attributes\\\");e.exports=function(t,e,r){function a(r,a){return n.coerce(t,e,i,r,a)}var o,s=a(\\\"clickmode\\\");\\\"select\\\"===a(\\\"dragmode\\\")&&a(\\\"selectdirection\\\"),e._has(\\\"cartesian\\\")?s.indexOf(\\\"select\\\")>-1?o=\\\"closest\\\":(e._isHoriz=function(t,e){for(var r=e._scatterStackOpts||{},n=0;n<t.length;n++){var i=t[n],a=i.xaxis+i.yaxis,o=r[a]||{},s=o[i.stackgroup]||{};if(\\\"h\\\"!==i.orientation&&\\\"h\\\"!==s.orientation)return!1}return!0}(r,e),o=e._isHoriz?\\\"y\\\":\\\"x\\\"):o=\\\"closest\\\",a(\\\"hovermode\\\",o)&&(a(\\\"hoverdistance\\\"),a(\\\"spikedistance\\\"));var l=e._has(\\\"mapbox\\\"),c=e._has(\\\"geo\\\"),u=e._basePlotModules.length;\\\"zoom\\\"===e.dragmode&&((l||c)&&1===u||l&&c&&2===u)&&(e.dragmode=\\\"pan\\\")}},{\\\"../../lib\\\":703,\\\"./layout_attributes\\\":620}],622:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./hoverlabel_defaults\\\"),a=t(\\\"./layout_attributes\\\");e.exports=function(t,e){i(t,e,function(r,i){return n.coerce(t,e,a,r,i)})}},{\\\"../../lib\\\":703,\\\"./hoverlabel_defaults\\\":617,\\\"./layout_attributes\\\":620}],623:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../lib/regex\\\").counter,a=t(\\\"../../plots/domain\\\").attributes,o=t(\\\"../../plots/cartesian/constants\\\").idRegex,s=t(\\\"../../plot_api/plot_template\\\"),l={rows:{valType:\\\"integer\\\",min:1,editType:\\\"plot\\\"},roworder:{valType:\\\"enumerated\\\",values:[\\\"top to bottom\\\",\\\"bottom to top\\\"],dflt:\\\"top to bottom\\\",editType:\\\"plot\\\"},columns:{valType:\\\"integer\\\",min:1,editType:\\\"plot\\\"},subplots:{valType:\\\"info_array\\\",freeLength:!0,dimensions:2,items:{valType:\\\"enumerated\\\",values:[i(\\\"xy\\\").toString(),\\\"\\\"],editType:\\\"plot\\\"},editType:\\\"plot\\\"},xaxes:{valType:\\\"info_array\\\",freeLength:!0,items:{valType:\\\"enumerated\\\",values:[o.x.toString(),\\\"\\\"],editType:\\\"plot\\\"},editType:\\\"plot\\\"},yaxes:{valType:\\\"info_array\\\",freeLength:!0,items:{valType:\\\"enumerated\\\",values:[o.y.toString(),\\\"\\\"],editType:\\\"plot\\\"},editType:\\\"plot\\\"},pattern:{valType:\\\"enumerated\\\",values:[\\\"independent\\\",\\\"coupled\\\"],dflt:\\\"coupled\\\",editType:\\\"plot\\\"},xgap:{valType:\\\"number\\\",min:0,max:1,editType:\\\"plot\\\"},ygap:{valType:\\\"number\\\",min:0,max:1,editType:\\\"plot\\\"},domain:a({name:\\\"grid\\\",editType:\\\"plot\\\",noGridCell:!0},{}),xside:{valType:\\\"enumerated\\\",values:[\\\"bottom\\\",\\\"bottom plot\\\",\\\"top plot\\\",\\\"top\\\"],dflt:\\\"bottom plot\\\",editType:\\\"plot\\\"},yside:{valType:\\\"enumerated\\\",values:[\\\"left\\\",\\\"left plot\\\",\\\"right plot\\\",\\\"right\\\"],dflt:\\\"left plot\\\",editType:\\\"plot\\\"},editType:\\\"plot\\\"};function c(t,e,r){var n=e[r+\\\"axes\\\"],i=Object.keys((t._splomAxes||{})[r]||{});return Array.isArray(n)?n:i.length?i:void 0}function u(t,e,r,n,i,a){var o=e(t+\\\"gap\\\",r),s=e(\\\"domain.\\\"+t);e(t+\\\"side\\\",n);for(var l=new Array(i),c=s[0],u=(s[1]-c)/(i-o),f=u*(1-o),h=0;h<i;h++){var p=c+u*h;l[a?i-1-h:h]=[p,p+f]}return l}function f(t,e,r,n,i){var a,o=new Array(r);function s(t,r){-1!==e.indexOf(r)&&void 0===n[r]?(o[t]=r,n[r]=t):o[t]=\\\"\\\"}if(Array.isArray(t))for(a=0;a<r;a++)s(a,t[a]);else for(s(0,i),a=1;a<r;a++)s(a,i+(a+1));return o}e.exports={moduleType:\\\"component\\\",name:\\\"grid\\\",schema:{layout:{grid:l}},layoutAttributes:l,sizeDefaults:function(t,e){var r=t.grid||{},i=c(e,r,\\\"x\\\"),a=c(e,r,\\\"y\\\");if(t.grid||i||a){var o,f,h=Array.isArray(r.subplots)&&Array.isArray(r.subplots[0]),p=Array.isArray(i),d=Array.isArray(a),g=p&&i!==r.xaxes&&d&&a!==r.yaxes;h?(o=r.subplots.length,f=r.subplots[0].length):(d&&(o=a.length),p&&(f=i.length));var v=s.newContainer(e,\\\"grid\\\"),m=T(\\\"rows\\\",o),y=T(\\\"columns\\\",f);if(m*y>1){h||p||d||\\\"independent\\\"===T(\\\"pattern\\\")&&(h=!0),v._hasSubplotGrid=h;var x,b,_=\\\"top to bottom\\\"===T(\\\"roworder\\\"),w=h?.2:.1,k=h?.3:.1;g&&e._splomGridDflt&&(x=e._splomGridDflt.xside,b=e._splomGridDflt.yside),v._domains={x:u(\\\"x\\\",T,w,x,y),y:u(\\\"y\\\",T,k,b,m,_)}}else delete e.grid}function T(t,e){return n.coerce(r,v,l,t,e)}},contentDefaults:function(t,e){var r=e.grid;if(r&&r._domains){var n,i,a,o,s,l,u,h=t.grid||{},p=e._subplots,d=r._hasSubplotGrid,g=r.rows,v=r.columns,m=\\\"independent\\\"===r.pattern,y=r._axisMap={};if(d){var x=h.subplots||[];l=r.subplots=new Array(g);var b=1;for(n=0;n<g;n++){var _=l[n]=new Array(v),w=x[n]||[];for(i=0;i<v;i++)if(m?(s=1===b?\\\"xy\\\":\\\"x\\\"+b+\\\"y\\\"+b,b++):s=w[i],_[i]=\\\"\\\",-1!==p.cartesian.indexOf(s)){if(u=s.indexOf(\\\"y\\\"),a=s.slice(0,u),o=s.slice(u),void 0!==y[a]&&y[a]!==i||void 0!==y[o]&&y[o]!==n)continue;_[i]=s,y[a]=i,y[o]=n}}}else{var k=c(e,h,\\\"x\\\"),T=c(e,h,\\\"y\\\");r.xaxes=f(k,p.xaxis,v,y,\\\"x\\\"),r.yaxes=f(T,p.yaxis,g,y,\\\"y\\\")}var A=r._anchors={},M=\\\"top to bottom\\\"===r.roworder;for(var S in y){var E,C,L,z=S.charAt(0),O=r[z+\\\"side\\\"];if(O.length<8)A[S]=\\\"free\\\";else if(\\\"x\\\"===z){if(\\\"t\\\"===O.charAt(0)===M?(E=0,C=1,L=g):(E=g-1,C=-1,L=-1),d){var I=y[S];for(n=E;n!==L;n+=C)if((s=l[n][I])&&(u=s.indexOf(\\\"y\\\"),s.slice(0,u)===S)){A[S]=s.slice(u);break}}else for(n=E;n!==L;n+=C)if(o=r.yaxes[n],-1!==p.cartesian.indexOf(S+o)){A[S]=o;break}}else if(\\\"l\\\"===O.charAt(0)?(E=0,C=1,L=v):(E=v-1,C=-1,L=-1),d){var D=y[S];for(n=E;n!==L;n+=C)if((s=l[D][n])&&(u=s.indexOf(\\\"y\\\"),s.slice(u)===S)){A[S]=s.slice(0,u);break}}else for(n=E;n!==L;n+=C)if(a=r.xaxes[n],-1!==p.cartesian.indexOf(a+S)){A[S]=a;break}}}}}},{\\\"../../lib\\\":703,\\\"../../lib/regex\\\":719,\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/cartesian/constants\\\":757,\\\"../../plots/domain\\\":776}],624:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/constants\\\"),i=t(\\\"../../plot_api/plot_template\\\").templatedArray;e.exports=i(\\\"image\\\",{visible:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"arraydraw\\\"},source:{valType:\\\"string\\\",editType:\\\"arraydraw\\\"},layer:{valType:\\\"enumerated\\\",values:[\\\"below\\\",\\\"above\\\"],dflt:\\\"above\\\",editType:\\\"arraydraw\\\"},sizex:{valType:\\\"number\\\",dflt:0,editType:\\\"arraydraw\\\"},sizey:{valType:\\\"number\\\",dflt:0,editType:\\\"arraydraw\\\"},sizing:{valType:\\\"enumerated\\\",values:[\\\"fill\\\",\\\"contain\\\",\\\"stretch\\\"],dflt:\\\"contain\\\",editType:\\\"arraydraw\\\"},opacity:{valType:\\\"number\\\",min:0,max:1,dflt:1,editType:\\\"arraydraw\\\"},x:{valType:\\\"any\\\",dflt:0,editType:\\\"arraydraw\\\"},y:{valType:\\\"any\\\",dflt:0,editType:\\\"arraydraw\\\"},xanchor:{valType:\\\"enumerated\\\",values:[\\\"left\\\",\\\"center\\\",\\\"right\\\"],dflt:\\\"left\\\",editType:\\\"arraydraw\\\"},yanchor:{valType:\\\"enumerated\\\",values:[\\\"top\\\",\\\"middle\\\",\\\"bottom\\\"],dflt:\\\"top\\\",editType:\\\"arraydraw\\\"},xref:{valType:\\\"enumerated\\\",values:[\\\"paper\\\",n.idRegex.x.toString()],dflt:\\\"paper\\\",editType:\\\"arraydraw\\\"},yref:{valType:\\\"enumerated\\\",values:[\\\"paper\\\",n.idRegex.y.toString()],dflt:\\\"paper\\\",editType:\\\"arraydraw\\\"},editType:\\\"arraydraw\\\"})},{\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/cartesian/constants\\\":757}],625:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../lib/to_log_range\\\");e.exports=function(t,e,r,a){e=e||{};var o=\\\"log\\\"===r&&\\\"linear\\\"===e.type,s=\\\"linear\\\"===r&&\\\"log\\\"===e.type;if(o||s)for(var l,c,u=t._fullLayout.images,f=e._id.charAt(0),h=0;h<u.length;h++)if(c=\\\"images[\\\"+h+\\\"].\\\",(l=u[h])[f+\\\"ref\\\"]===e._id){var p=l[f],d=l[\\\"size\\\"+f],g=null,v=null;if(o){g=i(p,e.range);var m=d/Math.pow(10,g)/2;v=2*Math.log(m+Math.sqrt(1+m*m))/Math.LN10}else v=(g=Math.pow(10,p))*(Math.pow(10,d/2)-Math.pow(10,-d/2));n(g)?n(v)||(v=null):(g=null,v=null),a(c+f,g),a(c+\\\"size\\\"+f,v)}}},{\\\"../../lib/to_log_range\\\":729,\\\"fast-isnumeric\\\":224}],626:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plots/cartesian/axes\\\"),a=t(\\\"../../plots/array_container_defaults\\\"),o=t(\\\"./attributes\\\");function s(t,e,r){function a(r,i){return n.coerce(t,e,o,r,i)}var s=a(\\\"source\\\");if(!a(\\\"visible\\\",!!s))return e;a(\\\"layer\\\"),a(\\\"xanchor\\\"),a(\\\"yanchor\\\"),a(\\\"sizex\\\"),a(\\\"sizey\\\"),a(\\\"sizing\\\"),a(\\\"opacity\\\");for(var l={_fullLayout:r},c=[\\\"x\\\",\\\"y\\\"],u=0;u<2;u++){var f=c[u],h=i.coerceRef(t,e,l,f,\\\"paper\\\");if(\\\"paper\\\"!==h)i.getFromId(l,h)._imgIndices.push(e._index);i.coercePosition(e,l,a,h,f,0)}return e}e.exports=function(t,e){a(t,e,{name:\\\"images\\\",handleItemDefaults:s})}},{\\\"../../lib\\\":703,\\\"../../plots/array_container_defaults\\\":747,\\\"../../plots/cartesian/axes\\\":751,\\\"./attributes\\\":624}],627:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../drawing\\\"),a=t(\\\"../../plots/cartesian/axes\\\"),o=t(\\\"../../constants/xmlns_namespaces\\\");e.exports=function(t){var e,r,s=t._fullLayout,l=[],c={},u=[];for(r=0;r<s.images.length;r++){var f=s.images[r];if(f.visible)if(\\\"below\\\"===f.layer&&\\\"paper\\\"!==f.xref&&\\\"paper\\\"!==f.yref){e=f.xref+f.yref;var h=s._plots[e];if(!h){u.push(f);continue}h.mainplot&&(e=h.mainplot.id),c[e]||(c[e]=[]),c[e].push(f)}else\\\"above\\\"===f.layer?l.push(f):u.push(f)}var p={x:{left:{sizing:\\\"xMin\\\",offset:0},center:{sizing:\\\"xMid\\\",offset:-.5},right:{sizing:\\\"xMax\\\",offset:-1}},y:{top:{sizing:\\\"YMin\\\",offset:0},middle:{sizing:\\\"YMid\\\",offset:-.5},bottom:{sizing:\\\"YMax\\\",offset:-1}}};function d(e){var r=n.select(this);if(!this.img||this.img.src!==e.source){r.attr(\\\"xmlns\\\",o.svg);var i=new Promise(function(t){var n=new Image;function i(){r.remove(),t()}this.img=n,n.setAttribute(\\\"crossOrigin\\\",\\\"anonymous\\\"),n.onerror=i,n.onload=function(){var e=document.createElement(\\\"canvas\\\");e.width=this.width,e.height=this.height,e.getContext(\\\"2d\\\").drawImage(this,0,0);var n=e.toDataURL(\\\"image/png\\\");r.attr(\\\"xlink:href\\\",n),t()},r.on(\\\"error\\\",i),n.src=e.source}.bind(this));t._promises.push(i)}}function g(e){var r=n.select(this),o=a.getFromId(t,e.xref),l=a.getFromId(t,e.yref),c=s._size,u=o?Math.abs(o.l2p(e.sizex)-o.l2p(0)):e.sizex*c.w,f=l?Math.abs(l.l2p(e.sizey)-l.l2p(0)):e.sizey*c.h,h=u*p.x[e.xanchor].offset,d=f*p.y[e.yanchor].offset,g=p.x[e.xanchor].sizing+p.y[e.yanchor].sizing,v=(o?o.r2p(e.x)+o._offset:e.x*c.w+c.l)+h,m=(l?l.r2p(e.y)+l._offset:c.h-e.y*c.h+c.t)+d;switch(e.sizing){case\\\"fill\\\":g+=\\\" slice\\\";break;case\\\"stretch\\\":g=\\\"none\\\"}r.attr({x:v,y:m,width:u,height:f,preserveAspectRatio:g,opacity:e.opacity});var y=(o?o._id:\\\"\\\")+(l?l._id:\\\"\\\");i.setClipUrl(r,y?\\\"clip\\\"+s._uid+y:null,t)}var v=s._imageLowerLayer.selectAll(\\\"image\\\").data(u),m=s._imageUpperLayer.selectAll(\\\"image\\\").data(l);v.enter().append(\\\"image\\\"),m.enter().append(\\\"image\\\"),v.exit().remove(),m.exit().remove(),v.each(function(t){d.bind(this)(t),g.bind(this)(t)}),m.each(function(t){d.bind(this)(t),g.bind(this)(t)});var y=Object.keys(s._plots);for(r=0;r<y.length;r++){e=y[r];var x=s._plots[e];if(x.imagelayer){var b=x.imagelayer.selectAll(\\\"image\\\").data(c[e]||[]);b.enter().append(\\\"image\\\"),b.exit().remove(),b.each(function(t){d.bind(this)(t),g.bind(this)(t)})}}}},{\\\"../../constants/xmlns_namespaces\\\":681,\\\"../../plots/cartesian/axes\\\":751,\\\"../drawing\\\":601,d3:157}],628:[function(t,e,r){\\\"use strict\\\";e.exports={moduleType:\\\"component\\\",name:\\\"images\\\",layoutAttributes:t(\\\"./attributes\\\"),supplyLayoutDefaults:t(\\\"./defaults\\\"),includeBasePlot:t(\\\"../../plots/cartesian/include_components\\\")(\\\"images\\\"),draw:t(\\\"./draw\\\"),convertCoords:t(\\\"./convert_coords\\\")}},{\\\"../../plots/cartesian/include_components\\\":761,\\\"./attributes\\\":624,\\\"./convert_coords\\\":625,\\\"./defaults\\\":626,\\\"./draw\\\":627}],629:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/font_attributes\\\"),i=t(\\\"../color/attributes\\\");e.exports={bgcolor:{valType:\\\"color\\\",editType:\\\"legend\\\"},bordercolor:{valType:\\\"color\\\",dflt:i.defaultLine,editType:\\\"legend\\\"},borderwidth:{valType:\\\"number\\\",min:0,dflt:0,editType:\\\"legend\\\"},font:n({editType:\\\"legend\\\"}),orientation:{valType:\\\"enumerated\\\",values:[\\\"v\\\",\\\"h\\\"],dflt:\\\"v\\\",editType:\\\"legend\\\"},traceorder:{valType:\\\"flaglist\\\",flags:[\\\"reversed\\\",\\\"grouped\\\"],extras:[\\\"normal\\\"],editType:\\\"legend\\\"},tracegroupgap:{valType:\\\"number\\\",min:0,dflt:10,editType:\\\"legend\\\"},itemsizing:{valType:\\\"enumerated\\\",values:[\\\"trace\\\",\\\"constant\\\"],dflt:\\\"trace\\\",editType:\\\"legend\\\"},itemclick:{valType:\\\"enumerated\\\",values:[\\\"toggle\\\",\\\"toggleothers\\\",!1],dflt:\\\"toggle\\\",editType:\\\"legend\\\"},itemdoubleclick:{valType:\\\"enumerated\\\",values:[\\\"toggle\\\",\\\"toggleothers\\\",!1],dflt:\\\"toggleothers\\\",editType:\\\"legend\\\"},x:{valType:\\\"number\\\",min:-2,max:3,dflt:1.02,editType:\\\"legend\\\"},xanchor:{valType:\\\"enumerated\\\",values:[\\\"auto\\\",\\\"left\\\",\\\"center\\\",\\\"right\\\"],dflt:\\\"left\\\",editType:\\\"legend\\\"},y:{valType:\\\"number\\\",min:-2,max:3,dflt:1,editType:\\\"legend\\\"},yanchor:{valType:\\\"enumerated\\\",values:[\\\"auto\\\",\\\"top\\\",\\\"middle\\\",\\\"bottom\\\"],dflt:\\\"auto\\\",editType:\\\"legend\\\"},uirevision:{valType:\\\"any\\\",editType:\\\"none\\\"},valign:{valType:\\\"enumerated\\\",values:[\\\"top\\\",\\\"middle\\\",\\\"bottom\\\"],dflt:\\\"middle\\\",editType:\\\"legend\\\"},editType:\\\"legend\\\"}},{\\\"../../plots/font_attributes\\\":777,\\\"../color/attributes\\\":579}],630:[function(t,e,r){\\\"use strict\\\";e.exports={scrollBarWidth:6,scrollBarMinHeight:20,scrollBarColor:\\\"#808BA4\\\",scrollBarMargin:4,textOffsetX:40}},{}],631:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../plot_api/plot_template\\\"),o=t(\\\"./attributes\\\"),s=t(\\\"../../plots/layout_attributes\\\"),l=t(\\\"./helpers\\\");e.exports=function(t,e,r){for(var c,u,f,h,p=t.legend||{},d=0,g=!1,v=\\\"normal\\\",m=0;m<r.length;m++){var y=r[m];y.visible&&((y.showlegend||y._dfltShowLegend)&&(d++,y.showlegend&&(g=!0,(n.traceIs(y,\\\"pie-like\\\")||!0===y._input.showlegend)&&d++)),(n.traceIs(y,\\\"bar\\\")&&\\\"stack\\\"===e.barmode||-1!==[\\\"tonextx\\\",\\\"tonexty\\\"].indexOf(y.fill))&&(v=l.isGrouped({traceorder:v})?\\\"grouped+reversed\\\":\\\"reversed\\\"),void 0!==y.legendgroup&&\\\"\\\"!==y.legendgroup&&(v=l.isReversed({traceorder:v})?\\\"reversed+grouped\\\":\\\"grouped\\\"))}var x=i.coerce(t,e,s,\\\"showlegend\\\",g&&d>1);if(!1!==x||p.uirevision){var b=a.newContainer(e,\\\"legend\\\");if(w(\\\"uirevision\\\",e.uirevision),!1!==x){if(w(\\\"bgcolor\\\",e.paper_bgcolor),w(\\\"bordercolor\\\"),w(\\\"borderwidth\\\"),i.coerceFont(w,\\\"font\\\",e.font),w(\\\"orientation\\\"),\\\"h\\\"===b.orientation){var _=t.xaxis;n.getComponentMethod(\\\"rangeslider\\\",\\\"isVisible\\\")(_)?(c=0,f=\\\"left\\\",u=1.1,h=\\\"bottom\\\"):(c=0,f=\\\"left\\\",u=-.1,h=\\\"top\\\")}w(\\\"traceorder\\\",v),l.isGrouped(e.legend)&&w(\\\"tracegroupgap\\\"),w(\\\"itemsizing\\\"),w(\\\"itemclick\\\"),w(\\\"itemdoubleclick\\\"),w(\\\"x\\\",c),w(\\\"xanchor\\\",f),w(\\\"y\\\",u),w(\\\"yanchor\\\",h),w(\\\"valign\\\"),i.noneOrAll(p,b,[\\\"x\\\",\\\"y\\\"])}}function w(t,e){return i.coerce(p,b,o,t,e)}}},{\\\"../../lib\\\":703,\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/layout_attributes\\\":803,\\\"../../registry\\\":831,\\\"./attributes\\\":629,\\\"./helpers\\\":635}],632:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../plots/plots\\\"),o=t(\\\"../../registry\\\"),s=t(\\\"../../lib/events\\\"),l=t(\\\"../dragelement\\\"),c=t(\\\"../drawing\\\"),u=t(\\\"../color\\\"),f=t(\\\"../../lib/svg_text_utils\\\"),h=t(\\\"./handle_click\\\"),p=t(\\\"./constants\\\"),d=t(\\\"../../constants/interactions\\\"),g=t(\\\"../../constants/alignment\\\"),v=g.LINE_SPACING,m=g.FROM_TL,y=g.FROM_BR,x=t(\\\"./get_legend_data\\\"),b=t(\\\"./style\\\"),_=t(\\\"./helpers\\\"),w=d.DBLCLICKDELAY;function k(t,e,r,n,i){var a=r.data()[0][0].trace,l={event:i,node:r.node(),curveNumber:a.index,expandedIndex:a._expandedIndex,data:t.data,layout:t.layout,frames:t._transitionData._frames,config:t._context,fullData:t._fullData,fullLayout:t._fullLayout};if(a._group&&(l.group=a._group),o.traceIs(a,\\\"pie-like\\\")&&(l.label=r.datum()[0].label),!1!==s.triggerHandler(t,\\\"plotly_legendclick\\\",l))if(1===n)e._clickTimeout=setTimeout(function(){h(r,t,n)},w);else if(2===n){e._clickTimeout&&clearTimeout(e._clickTimeout),t._legendMouseDownTime=0,!1!==s.triggerHandler(t,\\\"plotly_legenddoubleclick\\\",l)&&h(r,t,n)}}function T(t,e,r){var n=t.data()[0][0],a=e._fullLayout,s=n.trace,l=o.traceIs(s,\\\"pie-like\\\"),u=s.index,h=e._context.edits.legendText&&!l,d=l?n.label:s.name;s._meta&&(d=i.templateString(d,s._meta));var g=i.ensureSingle(t,\\\"text\\\",\\\"legendtext\\\");function m(r){f.convertToTspans(r,e,function(){!function(t,e){var r=t.data()[0][0];if(!r.trace.showlegend)return void t.remove();var n,i,a=t.select(\\\"g[class*=math-group]\\\"),o=a.node(),s=e._fullLayout.legend.font.size*v;if(o){var l=c.bBox(o);n=l.height,i=l.width,c.setTranslate(a,0,n/4)}else{var u=t.select(\\\".legendtext\\\"),h=f.lineCount(u),d=u.node();n=s*h,i=d?c.bBox(d).width:0;var g=s*(.3+(1-h)/2);f.positionText(u,p.textOffsetX,g)}r.lineHeight=s,r.height=Math.max(n,16)+3,r.width=i}(t,e)})}g.attr(\\\"text-anchor\\\",\\\"start\\\").classed(\\\"user-select-none\\\",!0).call(c.font,a.legend.font).text(h?A(d,r):d),f.positionText(g,p.textOffsetX,0),h?g.call(f.makeEditable,{gd:e,text:d}).call(m).on(\\\"edit\\\",function(t){this.text(A(t,r)).call(m);var a=n.trace._fullInput||{},s={};if(o.hasTransform(a,\\\"groupby\\\")){var l=o.getTransformIndices(a,\\\"groupby\\\"),c=l[l.length-1],f=i.keyedContainer(a,\\\"transforms[\\\"+c+\\\"].styles\\\",\\\"target\\\",\\\"value.name\\\");f.set(n.trace._group,t),s=f.constructUpdate()}else s.name=t;return o.call(\\\"_guiRestyle\\\",e,s,u)}):m(g)}function A(t,e){var r=Math.max(4,e);if(t&&t.trim().length>=r/2)return t;for(var n=r-(t=t||\\\"\\\").length;n>0;n--)t+=\\\" \\\";return t}function M(t,e){var r,a=1,o=i.ensureSingle(t,\\\"rect\\\",\\\"legendtoggle\\\",function(t){t.style(\\\"cursor\\\",\\\"pointer\\\").attr(\\\"pointer-events\\\",\\\"all\\\").call(u.fill,\\\"rgba(0,0,0,0)\\\")});o.on(\\\"mousedown\\\",function(){(r=(new Date).getTime())-e._legendMouseDownTime<w?a+=1:(a=1,e._legendMouseDownTime=r)}),o.on(\\\"mouseup\\\",function(){if(!e._dragged&&!e._editing){var r=e._fullLayout.legend;(new Date).getTime()-e._legendMouseDownTime>w&&(a=Math.max(a-1,1)),k(e,r,t,a,n.event)}})}function S(t,e,r){var a=t._fullLayout,o=a.legend,s=o.borderwidth,l=_.isGrouped(o),u=0;if(o._width=0,o._height=0,_.isVertical(o))l&&e.each(function(t,e){c.setTranslate(this,0,e*o.tracegroupgap)}),r.each(function(t){var e=t[0],r=e.height,n=e.width;c.setTranslate(this,s,5+s+o._height+r/2),o._height+=r,o._width=Math.max(o._width,n)}),o._width+=45+2*s,o._height+=10+2*s,l&&(o._height+=(o._lgroupsLength-1)*o.tracegroupgap),u=40;else if(l){var f,h=0,p=0,d=e.data(),g=0;for(f=0;f<d.length;f++){var v=d[f],m=v.map(function(t){return t[0].width}),y=i.aggNums(Math.max,null,m),x=v.reduce(function(t,e){return t+e[0].height},0);p=Math.max(p,y),h=Math.max(h,x),g=Math.max(g,v.length)}p+=5,p+=40;var b=[o._width],w=[],k=0;for(f=0;f<d.length;f++){a._size.w<s+o._width+5+p?(b[b.length-1]=b[0],o._width=p,k++):o._width+=p+s;var T=k*h;T+=k>0?o.tracegroupgap:0,w.push(T),b.push(o._width)}e.each(function(t,e){c.setTranslate(this,b[e],w[e])}),e.each(function(){var t=n.select(this).selectAll(\\\"g.traces\\\"),e=0;t.each(function(t){var r=t[0].height;c.setTranslate(this,0,5+s+e+r/2),e+=r})});var A=w[w.length-1]+h;o._height=10+2*s+A;var M=Math.max.apply(null,b);o._width=M+p+40,o._width+=2*s}else{var S=0,E=0,C=0,L=0,z=0;r.each(function(t){C=Math.max(40+t[0].width,C),z+=40+t[0].width+5});var O=a._size.w>s+z-5;r.each(function(t){var e=t[0],r=O?40+t[0].width:C;s+L+5+r>a._size.w&&(L=0,S+=E,o._height+=E,E=0),c.setTranslate(this,s+L,5+s+e.height/2+S),o._width+=5+r,L+=5+r,E=Math.max(e.height,E)}),O?o._height=E:o._height+=E,o._width+=2*s,o._height+=10+2*s}o._width=Math.ceil(o._width),o._height=Math.ceil(o._height);var I=t._context.edits.legendText||t._context.edits.legendPosition;r.each(function(t){var e=t[0],r=n.select(this).select(\\\".legendtoggle\\\");c.setRect(r,0,-e.height/2,(I?0:o._width)+u,e.height)})}function E(t){var e=t._fullLayout.legend,r=\\\"left\\\";i.isRightAnchor(e)?r=\\\"right\\\":i.isCenterAnchor(e)&&(r=\\\"center\\\");var n=\\\"top\\\";i.isBottomAnchor(e)?n=\\\"bottom\\\":i.isMiddleAnchor(e)&&(n=\\\"middle\\\"),a.autoMargin(t,\\\"legend\\\",{x:e.x,y:e.y,l:e._width*m[r],r:e._width*y[r],b:e._height*y[n],t:e._height*m[n]})}e.exports=function(t){var e=t._fullLayout,r=\\\"legend\\\"+e._uid;if(e._infolayer&&t.calcdata){t._legendMouseDownTime||(t._legendMouseDownTime=0);var s=e.legend,f=e.showlegend&&x(t.calcdata,s),h=e.hiddenlabels||[];if(!e.showlegend||!f.length)return e._infolayer.selectAll(\\\".legend\\\").remove(),e._topdefs.select(\\\"#\\\"+r).remove(),void a.autoMargin(t,\\\"legend\\\");for(var d=0,g=0;g<f.length;g++)for(var v=0;v<f[g].length;v++){var _=f[g][v][0],w=_.trace,A=o.traceIs(w,\\\"pie-like\\\")?_.label:w.name;d=Math.max(d,A&&A.length||0)}var C=!1,L=i.ensureSingle(e._infolayer,\\\"g\\\",\\\"legend\\\",function(t){t.attr(\\\"pointer-events\\\",\\\"all\\\"),C=!0}),z=i.ensureSingleById(e._topdefs,\\\"clipPath\\\",r,function(t){t.append(\\\"rect\\\")}),O=i.ensureSingle(L,\\\"rect\\\",\\\"bg\\\",function(t){t.attr(\\\"shape-rendering\\\",\\\"crispEdges\\\")});O.call(u.stroke,s.bordercolor).call(u.fill,s.bgcolor).style(\\\"stroke-width\\\",s.borderwidth+\\\"px\\\");var I=i.ensureSingle(L,\\\"g\\\",\\\"scrollbox\\\"),D=i.ensureSingle(L,\\\"rect\\\",\\\"scrollbar\\\",function(t){t.attr({rx:20,ry:3,width:0,height:0}).call(u.fill,\\\"#808BA4\\\")}),P=I.selectAll(\\\"g.groups\\\").data(f);P.enter().append(\\\"g\\\").attr(\\\"class\\\",\\\"groups\\\"),P.exit().remove();var R=P.selectAll(\\\"g.traces\\\").data(i.identity);R.enter().append(\\\"g\\\").attr(\\\"class\\\",\\\"traces\\\"),R.exit().remove(),R.style(\\\"opacity\\\",function(t){var e=t[0].trace;return o.traceIs(e,\\\"pie-like\\\")?-1!==h.indexOf(t[0].label)?.5:1:\\\"legendonly\\\"===e.visible?.5:1}).each(function(){n.select(this).call(T,t,d)}).call(b,t).each(function(){n.select(this).call(M,t)}),i.syncOrAsync([a.previousPromises,function(){C&&(S(t,P,R),E(t));var u=e.width,f=e.height;S(t,P,R),s._height>f?function(t){var e=t._fullLayout.legend,r=\\\"left\\\";i.isRightAnchor(e)?r=\\\"right\\\":i.isCenterAnchor(e)&&(r=\\\"center\\\");a.autoMargin(t,\\\"legend\\\",{x:e.x,y:.5,l:e._width*m[r],r:e._width*y[r],b:0,t:0})}(t):E(t);var h=e._size,d=h.l+h.w*s.x,g=h.t+h.h*(1-s.y);i.isRightAnchor(s)?d-=s._width:i.isCenterAnchor(s)&&(d-=s._width/2),i.isBottomAnchor(s)?g-=s._height:i.isMiddleAnchor(s)&&(g-=s._height/2);var v=s._width,x=h.w;v>x?(d=h.l,v=x):(d+v>u&&(d=u-v),d<0&&(d=0),v=Math.min(u-d,s._width));var b,_,w,T,A=s._height,M=h.h;if(A>M?(g=h.t,A=M):(g+A>f&&(g=f-A),g<0&&(g=0),A=Math.min(f-g,s._height)),c.setTranslate(L,d,g),D.on(\\\".drag\\\",null),L.on(\\\"wheel\\\",null),s._height<=A||t._context.staticPlot)O.attr({width:v-s.borderwidth,height:A-s.borderwidth,x:s.borderwidth/2,y:s.borderwidth/2}),c.setTranslate(I,0,0),z.select(\\\"rect\\\").attr({width:v-2*s.borderwidth,height:A-2*s.borderwidth,x:s.borderwidth,y:s.borderwidth}),c.setClipUrl(I,r,t),c.setRect(D,0,0,0,0),delete s._scrollY;else{var F,B,N=Math.max(p.scrollBarMinHeight,A*A/s._height),j=A-N-2*p.scrollBarMargin,V=s._height-A,U=j/V,H=Math.min(s._scrollY||0,V);O.attr({width:v-2*s.borderwidth+p.scrollBarWidth+p.scrollBarMargin,height:A-s.borderwidth,x:s.borderwidth/2,y:s.borderwidth/2}),z.select(\\\"rect\\\").attr({width:v-2*s.borderwidth+p.scrollBarWidth+p.scrollBarMargin,height:A-2*s.borderwidth,x:s.borderwidth,y:s.borderwidth+H}),c.setClipUrl(I,r,t),G(H,N,U),L.on(\\\"wheel\\\",function(){G(H=i.constrain(s._scrollY+n.event.deltaY/j*V,0,V),N,U),0!==H&&H!==V&&n.event.preventDefault()});var q=n.behavior.drag().on(\\\"dragstart\\\",function(){F=n.event.sourceEvent.clientY,B=H}).on(\\\"drag\\\",function(){var t=n.event.sourceEvent;2===t.buttons||t.ctrlKey||G(H=i.constrain((t.clientY-F)/U+B,0,V),N,U)});D.call(q)}function G(e,r,n){s._scrollY=t._fullLayout.legend._scrollY=e,c.setTranslate(I,0,-e),c.setRect(D,v,p.scrollBarMargin+e*n,p.scrollBarWidth,r),z.select(\\\"rect\\\").attr({y:s.borderwidth+e})}t._context.edits.legendPosition&&(L.classed(\\\"cursor-move\\\",!0),l.init({element:L.node(),gd:t,prepFn:function(){var t=c.getTranslate(L);w=t.x,T=t.y},moveFn:function(t,e){var r=w+t,n=T+e;c.setTranslate(L,r,n),b=l.align(r,0,h.l,h.l+h.w,s.xanchor),_=l.align(n,0,h.t+h.h,h.t,s.yanchor)},doneFn:function(){void 0!==b&&void 0!==_&&o.call(\\\"_guiRelayout\\\",t,{\\\"legend.x\\\":b,\\\"legend.y\\\":_})},clickFn:function(r,n){var i=e._infolayer.selectAll(\\\"g.traces\\\").filter(function(){var t=this.getBoundingClientRect();return n.clientX>=t.left&&n.clientX<=t.right&&n.clientY>=t.top&&n.clientY<=t.bottom});i.size()>0&&k(t,L,i,r,n)}}))}],t)}}},{\\\"../../constants/alignment\\\":675,\\\"../../constants/interactions\\\":679,\\\"../../lib\\\":703,\\\"../../lib/events\\\":692,\\\"../../lib/svg_text_utils\\\":727,\\\"../../plots/plots\\\":812,\\\"../../registry\\\":831,\\\"../color\\\":580,\\\"../dragelement\\\":598,\\\"../drawing\\\":601,\\\"./constants\\\":630,\\\"./get_legend_data\\\":633,\\\"./handle_click\\\":634,\\\"./helpers\\\":635,\\\"./style\\\":637,d3:157}],633:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"./helpers\\\");e.exports=function(t,e){var r,a,o={},s=[],l=!1,c={},u=0;function f(t,r){if(\\\"\\\"!==t&&i.isGrouped(e))-1===s.indexOf(t)?(s.push(t),l=!0,o[t]=[[r]]):o[t].push([r]);else{var n=\\\"~~i\\\"+u;s.push(n),o[n]=[[r]],u++}}for(r=0;r<t.length;r++){var h=t[r],p=h[0],d=p.trace,g=d.legendgroup;if(d.visible&&d.showlegend)if(n.traceIs(d,\\\"pie-like\\\"))for(c[g]||(c[g]={}),a=0;a<h.length;a++){var v=h[a].label;c[g][v]||(f(g,{label:v,color:h[a].color,i:h[a].i,trace:d,pts:h[a].pts}),c[g][v]=!0)}else f(g,p)}if(!s.length)return[];var m,y,x=s.length;if(l&&i.isGrouped(e))for(y=new Array(x),r=0;r<x;r++)m=o[s[r]],y[r]=i.isReversed(e)?m.reverse():m;else{for(y=[new Array(x)],r=0;r<x;r++)m=o[s[r]][0],y[0][i.isReversed(e)?x-r-1:r]=m;x=1}return e._lgroupsLength=x,y}},{\\\"../../registry\\\":831,\\\"./helpers\\\":635}],634:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../registry\\\"),a=!0;e.exports=function(t,e,r){var o=e._fullLayout;if(!e._dragged&&!e._editing){var s,l=o.legend.itemclick,c=o.legend.itemdoubleclick;if(1===r&&\\\"toggle\\\"===l&&\\\"toggleothers\\\"===c&&a&&e.data&&e._context.showTips?(n.notifier(n._(e,\\\"Double-click on legend to isolate one trace\\\"),\\\"long\\\"),a=!1):a=!1,1===r?s=l:2===r&&(s=c),s){var u,f,h,p,d,g=o.hiddenlabels?o.hiddenlabels.slice():[],v=t.data()[0][0],m=e._fullData,y=v.trace,x=y.legendgroup,b={},_=[],w=[],k=[];if(i.traceIs(y,\\\"pie-like\\\")){var T=v.label,A=g.indexOf(T);\\\"toggle\\\"===s?-1===A?g.push(T):g.splice(A,1):\\\"toggleothers\\\"===s&&(g=[],e.calcdata[0].forEach(function(t){T!==t.label&&g.push(t.label)}),e._fullLayout.hiddenlabels&&e._fullLayout.hiddenlabels.length===g.length&&-1===A&&(g=[])),i.call(\\\"_guiRelayout\\\",e,\\\"hiddenlabels\\\",g)}else{var M,S=x&&x.length,E=[];if(S)for(u=0;u<m.length;u++)(M=m[u]).visible&&M.legendgroup===x&&E.push(u);if(\\\"toggle\\\"===s){var C;switch(y.visible){case!0:C=\\\"legendonly\\\";break;case!1:C=!1;break;case\\\"legendonly\\\":C=!0}if(S)for(u=0;u<m.length;u++)!1!==m[u].visible&&m[u].legendgroup===x&&R(m[u],C);else R(y,C)}else if(\\\"toggleothers\\\"===s){var L,z,O=!0;for(u=0;u<m.length;u++)if(!(m[u]===y)&&!(L=S&&m[u].legendgroup===x)&&!0===m[u].visible&&!i.traceIs(m[u],\\\"notLegendIsolatable\\\")){O=!1;break}for(u=0;u<m.length;u++)if(!1!==m[u].visible&&!i.traceIs(m[u],\\\"notLegendIsolatable\\\"))switch(y.visible){case\\\"legendonly\\\":R(m[u],!0);break;case!0:z=!!O||\\\"legendonly\\\",L=m[u]===y||S&&m[u].legendgroup===x,R(m[u],!!L||z)}}for(u=0;u<w.length;u++)if(h=w[u]){var I=h.constructUpdate(),D=Object.keys(I);for(f=0;f<D.length;f++)p=D[f],(b[p]=b[p]||[])[k[u]]=I[p]}for(d=Object.keys(b),u=0;u<d.length;u++)for(p=d[u],f=0;f<_.length;f++)b[p].hasOwnProperty(f)||(b[p][f]=void 0);i.call(\\\"_guiRestyle\\\",e,b,_)}}}function P(t,e,r){var n=_.indexOf(t),i=b[e];return i||(i=b[e]=[]),-1===_.indexOf(t)&&(_.push(t),n=_.length-1),i[n]=r,n}function R(t,e){var r=t._fullInput;if(i.hasTransform(r,\\\"groupby\\\")){var a=w[r.index];if(!a){var o=i.getTransformIndices(r,\\\"groupby\\\"),s=o[o.length-1];a=n.keyedContainer(r,\\\"transforms[\\\"+s+\\\"].styles\\\",\\\"target\\\",\\\"value.visible\\\"),w[r.index]=a}var l=a.get(t._group);void 0===l&&(l=!0),!1!==l&&a.set(t._group,e),k[r.index]=P(r.index,\\\"visible\\\",!1!==r.visible)}else{var c=!1!==r.visible&&e;P(r.index,\\\"visible\\\",c)}}}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831}],635:[function(t,e,r){\\\"use strict\\\";r.isGrouped=function(t){return-1!==(t.traceorder||\\\"\\\").indexOf(\\\"grouped\\\")},r.isVertical=function(t){return\\\"h\\\"!==t.orientation},r.isReversed=function(t){return-1!==(t.traceorder||\\\"\\\").indexOf(\\\"reversed\\\")}},{}],636:[function(t,e,r){\\\"use strict\\\";e.exports={moduleType:\\\"component\\\",name:\\\"legend\\\",layoutAttributes:t(\\\"./attributes\\\"),supplyLayoutDefaults:t(\\\"./defaults\\\"),draw:t(\\\"./draw\\\"),style:t(\\\"./style\\\")}},{\\\"./attributes\\\":629,\\\"./defaults\\\":631,\\\"./draw\\\":632,\\\"./style\\\":637}],637:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"../../lib\\\"),o=t(\\\"../drawing\\\"),s=t(\\\"../color\\\"),l=t(\\\"../../traces/scatter/subtypes\\\"),c=t(\\\"../../traces/pie/style_one\\\"),u=t(\\\"../../traces/pie/helpers\\\").castOption,f=12,h=5,p=2,d=10,g=5;e.exports=function(t,e){var r=e._fullLayout.legend,v=\\\"constant\\\"===r.itemsizing;function m(t,e,r,n){var i;if(t+1)i=t;else{if(!(e&&e.width>0))return 0;i=e.width}return v?n:Math.min(i,r)}function y(t,e,r){var a=t[0].trace,o=a.marker||{},l=o.line||{},c=r?a.type===r&&a.visible:i.traceIs(a,\\\"bar\\\"),u=n.select(e).select(\\\"g.legendpoints\\\").selectAll(\\\"path.legend\\\"+r).data(c?[t]:[]);u.enter().append(\\\"path\\\").classed(\\\"legend\\\"+r,!0).attr(\\\"d\\\",\\\"M6,6H-6V-6H6Z\\\").attr(\\\"transform\\\",\\\"translate(20,0)\\\"),u.exit().remove(),u.each(function(t){var e=n.select(this),r=t[0],i=m(r.mlw,o.line,g,p);e.style(\\\"stroke-width\\\",i+\\\"px\\\").call(s.fill,r.mc||o.color),i&&s.stroke(e,r.mlc||l.color)})}function x(t,e,r){var o=t[0],s=o.trace,l=r?s.type===r&&s.visible:i.traceIs(s,r),f=n.select(e).select(\\\"g.legendpoints\\\").selectAll(\\\"path.legend\\\"+r).data(l?[t]:[]);if(f.enter().append(\\\"path\\\").classed(\\\"legend\\\"+r,!0).attr(\\\"d\\\",\\\"M6,6H-6V-6H6Z\\\").attr(\\\"transform\\\",\\\"translate(20,0)\\\"),f.exit().remove(),f.size()){var h=(s.marker||{}).line,d=m(u(h.width,o.pts),h,g,p),v=a.minExtend(s,{marker:{line:{width:d}}});v.marker.line.color=h.color;var y=a.minExtend(o,{trace:v});c(f,y,v)}}t.each(function(t){var e=n.select(this),i=a.ensureSingle(e,\\\"g\\\",\\\"layers\\\");i.style(\\\"opacity\\\",t[0].trace.opacity);var o=r.valign,s=t[0].lineHeight,l=t[0].height;if(\\\"middle\\\"!==o&&s&&l){var c={top:1,bottom:-1}[o]*(.5*(s-l+3));i.attr(\\\"transform\\\",\\\"translate(0,\\\"+c+\\\")\\\")}else i.attr(\\\"transform\\\",null);i.selectAll(\\\"g.legendfill\\\").data([t]).enter().append(\\\"g\\\").classed(\\\"legendfill\\\",!0),i.selectAll(\\\"g.legendlines\\\").data([t]).enter().append(\\\"g\\\").classed(\\\"legendlines\\\",!0);var u=i.selectAll(\\\"g.legendsymbols\\\").data([t]);u.enter().append(\\\"g\\\").classed(\\\"legendsymbols\\\",!0),u.selectAll(\\\"g.legendpoints\\\").data([t]).enter().append(\\\"g\\\").classed(\\\"legendpoints\\\",!0)}).each(function(t){var e=t[0].trace,r=[];\\\"waterfall\\\"===e.type&&e.visible&&(r=t[0].hasTotals?[[\\\"increasing\\\",\\\"M-6,-6V6H0Z\\\"],[\\\"totals\\\",\\\"M6,6H0L-6,-6H-0Z\\\"],[\\\"decreasing\\\",\\\"M6,6V-6H0Z\\\"]]:[[\\\"increasing\\\",\\\"M-6,-6V6H6Z\\\"],[\\\"decreasing\\\",\\\"M6,6V-6H-6Z\\\"]]);var i=n.select(this).select(\\\"g.legendpoints\\\").selectAll(\\\"path.legendwaterfall\\\").data(r);i.enter().append(\\\"path\\\").classed(\\\"legendwaterfall\\\",!0).attr(\\\"transform\\\",\\\"translate(20,0)\\\").style(\\\"stroke-miterlimit\\\",1),i.exit().remove(),i.each(function(t){var r=n.select(this),i=e[t[0]].marker,a=m(void 0,i.line,g,p);r.attr(\\\"d\\\",t[1]).style(\\\"stroke-width\\\",a+\\\"px\\\").call(s.fill,i.color),a&&r.call(s.stroke,i.line.color)})}).each(function(t){y(t,this,\\\"funnel\\\")}).each(function(t){y(t,this)}).each(function(t){var r=t[0].trace,l=n.select(this).select(\\\"g.legendpoints\\\").selectAll(\\\"path.legendbox\\\").data(i.traceIs(r,\\\"box-violin\\\")&&r.visible?[t]:[]);l.enter().append(\\\"path\\\").classed(\\\"legendbox\\\",!0).attr(\\\"d\\\",\\\"M6,6H-6V-6H6Z\\\").attr(\\\"transform\\\",\\\"translate(20,0)\\\"),l.exit().remove(),l.each(function(){var t=n.select(this);if(\\\"all\\\"!==r.boxpoints&&\\\"all\\\"!==r.points||0!==s.opacity(r.fillcolor)||0!==s.opacity((r.line||{}).color)){var i=m(void 0,r.line,g,p);t.style(\\\"stroke-width\\\",i+\\\"px\\\").call(s.fill,r.fillcolor),i&&s.stroke(t,r.line.color)}else{var c=a.minExtend(r,{marker:{size:v?f:a.constrain(r.marker.size,2,16),sizeref:1,sizemin:1,sizemode:\\\"diameter\\\"}});l.call(o.pointStyle,c,e)}})}).each(function(t){x(t,this,\\\"funnelarea\\\")}).each(function(t){x(t,this,\\\"pie\\\")}).each(function(t){var r,i,s=t[0],c=s.trace,u=c.visible&&c.fill&&\\\"none\\\"!==c.fill,f=l.hasLines(c),p=c.contours,g=!1,v=!1;if(p){var y=p.coloring;\\\"lines\\\"===y?g=!0:f=\\\"none\\\"===y||\\\"heatmap\\\"===y||p.showlines,\\\"constraint\\\"===p.type?u=\\\"=\\\"!==p._operation:\\\"fill\\\"!==y&&\\\"heatmap\\\"!==y||(v=!0)}var x=l.hasMarkers(c)||l.hasText(c),b=u||v,_=f||g,w=x||!b?\\\"M5,0\\\":_?\\\"M5,-2\\\":\\\"M5,-3\\\",k=n.select(this),T=k.select(\\\".legendfill\\\").selectAll(\\\"path\\\").data(u||v?[t]:[]);if(T.enter().append(\\\"path\\\").classed(\\\"js-fill\\\",!0),T.exit().remove(),T.attr(\\\"d\\\",w+\\\"h30v6h-30z\\\").call(u?o.fillGroupStyle:function(t){if(t.size()){var r=\\\"legendfill-\\\"+c.uid;o.gradient(t,e,r,\\\"horizontalreversed\\\",c.colorscale,\\\"fill\\\")}}),f||g){var A=m(void 0,c.line,d,h);i=a.minExtend(c,{line:{width:A}}),r=[a.minExtend(s,{trace:i})]}var M=k.select(\\\".legendlines\\\").selectAll(\\\"path\\\").data(f||g?[r]:[]);M.enter().append(\\\"path\\\").classed(\\\"js-line\\\",!0),M.exit().remove(),M.attr(\\\"d\\\",w+(g?\\\"l30,0.0001\\\":\\\"h30\\\")).call(f?o.lineGroupStyle:function(t){if(t.size()){var r=\\\"legendline-\\\"+c.uid;o.lineGroupStyle(t),o.gradient(t,e,r,\\\"horizontalreversed\\\",c.colorscale,\\\"stroke\\\")}})}).each(function(t){var r,i,s=t[0],c=s.trace,u=l.hasMarkers(c),d=l.hasText(c),g=l.hasLines(c);function m(t,e,r,n){var i=a.nestedProperty(c,t).get(),o=a.isArrayOrTypedArray(i)&&e?e(i):i;if(v&&o&&void 0!==n&&(o=n),r){if(o<r[0])return r[0];if(o>r[1])return r[1]}return o}function y(t){return t[0]}if(u||d||g){var x={},b={};if(u){x.mc=m(\\\"marker.color\\\",y),x.mx=m(\\\"marker.symbol\\\",y),x.mo=m(\\\"marker.opacity\\\",a.mean,[.2,1]),x.mlc=m(\\\"marker.line.color\\\",y),x.mlw=m(\\\"marker.line.width\\\",a.mean,[0,5],p),b.marker={sizeref:1,sizemin:1,sizemode:\\\"diameter\\\"};var _=m(\\\"marker.size\\\",a.mean,[2,16],f);x.ms=_,b.marker.size=_}g&&(b.line={width:m(\\\"line.width\\\",y,[0,10],h)}),d&&(x.tx=\\\"Aa\\\",x.tp=m(\\\"textposition\\\",y),x.ts=10,x.tc=m(\\\"textfont.color\\\",y),x.tf=m(\\\"textfont.family\\\",y)),r=[a.minExtend(s,x)],(i=a.minExtend(c,b)).selectedpoints=null}var w=n.select(this).select(\\\"g.legendpoints\\\"),k=w.selectAll(\\\"path.scatterpts\\\").data(u?r:[]);k.enter().insert(\\\"path\\\",\\\":first-child\\\").classed(\\\"scatterpts\\\",!0).attr(\\\"transform\\\",\\\"translate(20,0)\\\"),k.exit().remove(),k.call(o.pointStyle,i,e),u&&(r[0].mrc=3);var T=w.selectAll(\\\"g.pointtext\\\").data(d?r:[]);T.enter().append(\\\"g\\\").classed(\\\"pointtext\\\",!0).append(\\\"text\\\").attr(\\\"transform\\\",\\\"translate(20,0)\\\"),T.exit().remove(),T.selectAll(\\\"text\\\").call(o.textPointStyle,i,e)}).each(function(t){var e=t[0].trace,r=n.select(this).select(\\\"g.legendpoints\\\").selectAll(\\\"path.legendcandle\\\").data(\\\"candlestick\\\"===e.type&&e.visible?[t,t]:[]);r.enter().append(\\\"path\\\").classed(\\\"legendcandle\\\",!0).attr(\\\"d\\\",function(t,e){return e?\\\"M-15,0H-8M-8,6V-6H8Z\\\":\\\"M15,0H8M8,-6V6H-8Z\\\"}).attr(\\\"transform\\\",\\\"translate(20,0)\\\").style(\\\"stroke-miterlimit\\\",1),r.exit().remove(),r.each(function(t,r){var i=n.select(this),a=e[r?\\\"increasing\\\":\\\"decreasing\\\"],o=m(void 0,a.line,g,p);i.style(\\\"stroke-width\\\",o+\\\"px\\\").call(s.fill,a.fillcolor),o&&s.stroke(i,a.line.color)})}).each(function(t){var e=t[0].trace,r=n.select(this).select(\\\"g.legendpoints\\\").selectAll(\\\"path.legendohlc\\\").data(\\\"ohlc\\\"===e.type&&e.visible?[t,t]:[]);r.enter().append(\\\"path\\\").classed(\\\"legendohlc\\\",!0).attr(\\\"d\\\",function(t,e){return e?\\\"M-15,0H0M-8,-6V0\\\":\\\"M15,0H0M8,6V0\\\"}).attr(\\\"transform\\\",\\\"translate(20,0)\\\").style(\\\"stroke-miterlimit\\\",1),r.exit().remove(),r.each(function(t,r){var i=n.select(this),a=e[r?\\\"increasing\\\":\\\"decreasing\\\"],l=m(void 0,a.line,g,p);i.style(\\\"fill\\\",\\\"none\\\").call(o.dashLine,a.line.dash,l),l&&s.stroke(i,a.line.color)})})}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"../../traces/pie/helpers\\\":1054,\\\"../../traces/pie/style_one\\\":1060,\\\"../../traces/scatter/subtypes\\\":1098,\\\"../color\\\":580,\\\"../drawing\\\":601,d3:157}],638:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../plots/plots\\\"),a=t(\\\"../../plots/cartesian/axis_ids\\\"),o=t(\\\"../../lib\\\"),s=t(\\\"../../../build/ploticon\\\"),l=o._,c=e.exports={};function u(t,e){var r,i,o=e.currentTarget,s=o.getAttribute(\\\"data-attr\\\"),l=o.getAttribute(\\\"data-val\\\")||!0,c=t._fullLayout,u={},f=a.list(t,null,!0),h=\\\"on\\\";if(\\\"zoom\\\"===s){var p,d=\\\"in\\\"===l?.5:2,g=(1+d)/2,v=(1-d)/2;for(i=0;i<f.length;i++)if(!(r=f[i]).fixedrange)if(p=r._name,\\\"auto\\\"===l)u[p+\\\".autorange\\\"]=!0;else if(\\\"reset\\\"===l){if(void 0===r._rangeInitial)u[p+\\\".autorange\\\"]=!0;else{var m=r._rangeInitial.slice();u[p+\\\".range[0]\\\"]=m[0],u[p+\\\".range[1]\\\"]=m[1]}void 0!==r._showSpikeInitial&&(u[p+\\\".showspikes\\\"]=r._showSpikeInitial,\\\"on\\\"!==h||r._showSpikeInitial||(h=\\\"off\\\"))}else{var y=[r.r2l(r.range[0]),r.r2l(r.range[1])],x=[g*y[0]+v*y[1],g*y[1]+v*y[0]];u[p+\\\".range[0]\\\"]=r.l2r(x[0]),u[p+\\\".range[1]\\\"]=r.l2r(x[1])}c._cartesianSpikesEnabled=h}else{if(\\\"hovermode\\\"!==s||\\\"x\\\"!==l&&\\\"y\\\"!==l){if(\\\"hovermode\\\"===s&&\\\"closest\\\"===l){for(i=0;i<f.length;i++)r=f[i],\\\"on\\\"!==h||r.showspikes||(h=\\\"off\\\");c._cartesianSpikesEnabled=h}}else l=c._isHoriz?\\\"y\\\":\\\"x\\\",o.setAttribute(\\\"data-val\\\",l);u[s]=l}n.call(\\\"_guiRelayout\\\",t,u)}function f(t,e){for(var r=e.currentTarget,i=r.getAttribute(\\\"data-attr\\\"),a=r.getAttribute(\\\"data-val\\\")||!0,o=t._fullLayout._subplots.gl3d,s={},l=i.split(\\\".\\\"),c=0;c<o.length;c++)s[o[c]+\\\".\\\"+l[1]]=a;var u=\\\"pan\\\"===a?a:\\\"zoom\\\";s.dragmode=u,n.call(\\\"_guiRelayout\\\",t,s)}function h(t,e){for(var r=e.currentTarget.getAttribute(\\\"data-attr\\\"),i=t._fullLayout,a=i._subplots.gl3d,o={},s=0;s<a.length;s++){var l=a[s],c=l+\\\".camera\\\",u=i[l]._scene;\\\"resetLastSave\\\"===r?(o[c+\\\".up\\\"]=u.viewInitial.up,o[c+\\\".eye\\\"]=u.viewInitial.eye,o[c+\\\".center\\\"]=u.viewInitial.center):\\\"resetDefault\\\"===r&&(o[c+\\\".up\\\"]=null,o[c+\\\".eye\\\"]=null,o[c+\\\".center\\\"]=null)}n.call(\\\"_guiRelayout\\\",t,o)}function p(t,e){var r=e.currentTarget,n=r._previousVal,i=t._fullLayout,a=i._subplots.gl3d,o=[\\\"xaxis\\\",\\\"yaxis\\\",\\\"zaxis\\\"],s={},l={};if(n)l=n,r._previousVal=null;else{for(var c=0;c<a.length;c++){var u=a[c],f=i[u],h=u+\\\".hovermode\\\";s[h]=f.hovermode,l[h]=!1;for(var p=0;p<3;p++){var d=o[p],g=u+\\\".\\\"+d+\\\".showspikes\\\";l[g]=!1,s[g]=f[d].showspikes}}r._previousVal=s}return l}function d(t,e){for(var r=e.currentTarget,i=r.getAttribute(\\\"data-attr\\\"),a=r.getAttribute(\\\"data-val\\\")||!0,o=t._fullLayout,s=o._subplots.geo,l=0;l<s.length;l++){var c=s[l],u=o[c];if(\\\"zoom\\\"===i){var f=u.projection.scale,h=\\\"in\\\"===a?2*f:.5*f;n.call(\\\"_guiRelayout\\\",t,c+\\\".projection.scale\\\",h)}else\\\"reset\\\"===i&&m(t,\\\"geo\\\")}}function g(t){var e=t._fullLayout;return!e.hovermode&&(e._has(\\\"cartesian\\\")?e._isHoriz?\\\"y\\\":\\\"x\\\":\\\"closest\\\")}function v(t){var e=g(t);n.call(\\\"_guiRelayout\\\",t,\\\"hovermode\\\",e)}function m(t,e){for(var r=t._fullLayout,i=r._subplots[e],a={},o=0;o<i.length;o++)for(var s=i[o],l=r[s]._subplot.viewInitial,c=Object.keys(l),u=0;u<c.length;u++){var f=c[u];a[s+\\\".\\\"+f]=l[f]}n.call(\\\"_guiRelayout\\\",t,a)}c.toImage={name:\\\"toImage\\\",title:function(t){var e=(t._context.toImageButtonOptions||{}).format||\\\"png\\\";return l(t,\\\"png\\\"===e?\\\"Download plot as a png\\\":\\\"Download plot\\\")},icon:s.camera,click:function(t){var e=t._context.toImageButtonOptions,r={format:e.format||\\\"png\\\"};o.notifier(l(t,\\\"Taking snapshot - this may take a few seconds\\\"),\\\"long\\\"),\\\"svg\\\"!==r.format&&o.isIE()&&(o.notifier(l(t,\\\"IE only supports svg.  Changing format to svg.\\\"),\\\"long\\\"),r.format=\\\"svg\\\"),[\\\"filename\\\",\\\"width\\\",\\\"height\\\",\\\"scale\\\"].forEach(function(t){t in e&&(r[t]=e[t])}),n.call(\\\"downloadImage\\\",t,r).then(function(e){o.notifier(l(t,\\\"Snapshot succeeded\\\")+\\\" - \\\"+e,\\\"long\\\")}).catch(function(){o.notifier(l(t,\\\"Sorry, there was a problem downloading your snapshot!\\\"),\\\"long\\\")})}},c.sendDataToCloud={name:\\\"sendDataToCloud\\\",title:function(t){return l(t,\\\"Edit in Chart Studio\\\")},icon:s.disk,click:function(t){i.sendDataToCloud(t)}},c.zoom2d={name:\\\"zoom2d\\\",title:function(t){return l(t,\\\"Zoom\\\")},attr:\\\"dragmode\\\",val:\\\"zoom\\\",icon:s.zoombox,click:u},c.pan2d={name:\\\"pan2d\\\",title:function(t){return l(t,\\\"Pan\\\")},attr:\\\"dragmode\\\",val:\\\"pan\\\",icon:s.pan,click:u},c.select2d={name:\\\"select2d\\\",title:function(t){return l(t,\\\"Box Select\\\")},attr:\\\"dragmode\\\",val:\\\"select\\\",icon:s.selectbox,click:u},c.lasso2d={name:\\\"lasso2d\\\",title:function(t){return l(t,\\\"Lasso Select\\\")},attr:\\\"dragmode\\\",val:\\\"lasso\\\",icon:s.lasso,click:u},c.zoomIn2d={name:\\\"zoomIn2d\\\",title:function(t){return l(t,\\\"Zoom in\\\")},attr:\\\"zoom\\\",val:\\\"in\\\",icon:s.zoom_plus,click:u},c.zoomOut2d={name:\\\"zoomOut2d\\\",title:function(t){return l(t,\\\"Zoom out\\\")},attr:\\\"zoom\\\",val:\\\"out\\\",icon:s.zoom_minus,click:u},c.autoScale2d={name:\\\"autoScale2d\\\",title:function(t){return l(t,\\\"Autoscale\\\")},attr:\\\"zoom\\\",val:\\\"auto\\\",icon:s.autoscale,click:u},c.resetScale2d={name:\\\"resetScale2d\\\",title:function(t){return l(t,\\\"Reset axes\\\")},attr:\\\"zoom\\\",val:\\\"reset\\\",icon:s.home,click:u},c.hoverClosestCartesian={name:\\\"hoverClosestCartesian\\\",title:function(t){return l(t,\\\"Show closest data on hover\\\")},attr:\\\"hovermode\\\",val:\\\"closest\\\",icon:s.tooltip_basic,gravity:\\\"ne\\\",click:u},c.hoverCompareCartesian={name:\\\"hoverCompareCartesian\\\",title:function(t){return l(t,\\\"Compare data on hover\\\")},attr:\\\"hovermode\\\",val:function(t){return t._fullLayout._isHoriz?\\\"y\\\":\\\"x\\\"},icon:s.tooltip_compare,gravity:\\\"ne\\\",click:u},c.zoom3d={name:\\\"zoom3d\\\",title:function(t){return l(t,\\\"Zoom\\\")},attr:\\\"scene.dragmode\\\",val:\\\"zoom\\\",icon:s.zoombox,click:f},c.pan3d={name:\\\"pan3d\\\",title:function(t){return l(t,\\\"Pan\\\")},attr:\\\"scene.dragmode\\\",val:\\\"pan\\\",icon:s.pan,click:f},c.orbitRotation={name:\\\"orbitRotation\\\",title:function(t){return l(t,\\\"Orbital rotation\\\")},attr:\\\"scene.dragmode\\\",val:\\\"orbit\\\",icon:s[\\\"3d_rotate\\\"],click:f},c.tableRotation={name:\\\"tableRotation\\\",title:function(t){return l(t,\\\"Turntable rotation\\\")},attr:\\\"scene.dragmode\\\",val:\\\"turntable\\\",icon:s[\\\"z-axis\\\"],click:f},c.resetCameraDefault3d={name:\\\"resetCameraDefault3d\\\",title:function(t){return l(t,\\\"Reset camera to default\\\")},attr:\\\"resetDefault\\\",icon:s.home,click:h},c.resetCameraLastSave3d={name:\\\"resetCameraLastSave3d\\\",title:function(t){return l(t,\\\"Reset camera to last save\\\")},attr:\\\"resetLastSave\\\",icon:s.movie,click:h},c.hoverClosest3d={name:\\\"hoverClosest3d\\\",title:function(t){return l(t,\\\"Toggle show closest data on hover\\\")},attr:\\\"hovermode\\\",val:null,toggle:!0,icon:s.tooltip_basic,gravity:\\\"ne\\\",click:function(t,e){var r=p(t,e);n.call(\\\"_guiRelayout\\\",t,r)}},c.zoomInGeo={name:\\\"zoomInGeo\\\",title:function(t){return l(t,\\\"Zoom in\\\")},attr:\\\"zoom\\\",val:\\\"in\\\",icon:s.zoom_plus,click:d},c.zoomOutGeo={name:\\\"zoomOutGeo\\\",title:function(t){return l(t,\\\"Zoom out\\\")},attr:\\\"zoom\\\",val:\\\"out\\\",icon:s.zoom_minus,click:d},c.resetGeo={name:\\\"resetGeo\\\",title:function(t){return l(t,\\\"Reset\\\")},attr:\\\"reset\\\",val:null,icon:s.autoscale,click:d},c.hoverClosestGeo={name:\\\"hoverClosestGeo\\\",title:function(t){return l(t,\\\"Toggle show closest data on hover\\\")},attr:\\\"hovermode\\\",val:null,toggle:!0,icon:s.tooltip_basic,gravity:\\\"ne\\\",click:v},c.hoverClosestGl2d={name:\\\"hoverClosestGl2d\\\",title:function(t){return l(t,\\\"Toggle show closest data on hover\\\")},attr:\\\"hovermode\\\",val:null,toggle:!0,icon:s.tooltip_basic,gravity:\\\"ne\\\",click:v},c.hoverClosestPie={name:\\\"hoverClosestPie\\\",title:function(t){return l(t,\\\"Toggle show closest data on hover\\\")},attr:\\\"hovermode\\\",val:\\\"closest\\\",icon:s.tooltip_basic,gravity:\\\"ne\\\",click:v},c.resetViewSankey={name:\\\"resetSankeyGroup\\\",title:function(t){return l(t,\\\"Reset view\\\")},icon:s.home,click:function(t){for(var e={\\\"node.groups\\\":[],\\\"node.x\\\":[],\\\"node.y\\\":[]},r=0;r<t._fullData.length;r++){var i=t._fullData[r]._viewInitial;e[\\\"node.groups\\\"].push(i.node.groups.slice()),e[\\\"node.x\\\"].push(i.node.x.slice()),e[\\\"node.y\\\"].push(i.node.y.slice())}n.call(\\\"restyle\\\",t,e)}},c.toggleHover={name:\\\"toggleHover\\\",title:function(t){return l(t,\\\"Toggle show closest data on hover\\\")},attr:\\\"hovermode\\\",val:null,toggle:!0,icon:s.tooltip_basic,gravity:\\\"ne\\\",click:function(t,e){var r=p(t,e);r.hovermode=g(t),n.call(\\\"_guiRelayout\\\",t,r)}},c.resetViews={name:\\\"resetViews\\\",title:function(t){return l(t,\\\"Reset views\\\")},icon:s.home,click:function(t,e){var r=e.currentTarget;r.setAttribute(\\\"data-attr\\\",\\\"zoom\\\"),r.setAttribute(\\\"data-val\\\",\\\"reset\\\"),u(t,e),r.setAttribute(\\\"data-attr\\\",\\\"resetLastSave\\\"),h(t,e),m(t,\\\"geo\\\"),m(t,\\\"mapbox\\\")}},c.toggleSpikelines={name:\\\"toggleSpikelines\\\",title:function(t){return l(t,\\\"Toggle Spike Lines\\\")},icon:s.spikeline,attr:\\\"_cartesianSpikesEnabled\\\",val:\\\"on\\\",click:function(t){var e=t._fullLayout;e._cartesianSpikesEnabled=\\\"on\\\"===e._cartesianSpikesEnabled?\\\"off\\\":\\\"on\\\";var r=function(t){for(var e,r,n=t._fullLayout,i=a.list(t,null,!0),o={},s=0;s<i.length;s++)e=i[s],r=e._name,o[r+\\\".showspikes\\\"]=\\\"on\\\"===n._cartesianSpikesEnabled||e._showSpikeInitial;return o}(t);n.call(\\\"_guiRelayout\\\",t,r)}},c.resetViewMapbox={name:\\\"resetViewMapbox\\\",title:function(t){return l(t,\\\"Reset view\\\")},attr:\\\"reset\\\",icon:s.home,click:function(t){m(t,\\\"mapbox\\\")}}},{\\\"../../../build/ploticon\\\":2,\\\"../../lib\\\":703,\\\"../../plots/cartesian/axis_ids\\\":754,\\\"../../plots/plots\\\":812,\\\"../../registry\\\":831}],639:[function(t,e,r){\\\"use strict\\\";r.manage=t(\\\"./manage\\\")},{\\\"./manage\\\":640}],640:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/axis_ids\\\"),i=t(\\\"../../traces/scatter/subtypes\\\"),a=t(\\\"../../registry\\\"),o=t(\\\"./modebar\\\"),s=t(\\\"./buttons\\\");e.exports=function(t){var e=t._fullLayout,r=t._context,l=e._modeBar;if(r.displayModeBar||r.watermark){if(!Array.isArray(r.modeBarButtonsToRemove))throw new Error([\\\"*modeBarButtonsToRemove* configuration options\\\",\\\"must be an array.\\\"].join(\\\" \\\"));if(!Array.isArray(r.modeBarButtonsToAdd))throw new Error([\\\"*modeBarButtonsToAdd* configuration options\\\",\\\"must be an array.\\\"].join(\\\" \\\"));var c,u=r.modeBarButtons;c=Array.isArray(u)&&u.length?function(t){for(var e=0;e<t.length;e++)for(var r=t[e],n=0;n<r.length;n++){var i=r[n];if(\\\"string\\\"==typeof i){if(void 0===s[i])throw new Error([\\\"*modeBarButtons* configuration options\\\",\\\"invalid button name\\\"].join(\\\" \\\"));t[e][n]=s[i]}}return t}(u):!r.displayModeBar&&r.watermark?[]:function(t,e,r,o){var l=t._fullLayout,c=t._fullData,u=l._has(\\\"cartesian\\\"),f=l._has(\\\"gl3d\\\"),h=l._has(\\\"geo\\\"),p=l._has(\\\"pie\\\"),d=l._has(\\\"funnelarea\\\"),g=l._has(\\\"gl2d\\\"),v=l._has(\\\"ternary\\\"),m=l._has(\\\"mapbox\\\"),y=l._has(\\\"polar\\\"),x=l._has(\\\"sankey\\\"),b=function(t){for(var e=n.list({_fullLayout:t},null,!0),r=0;r<e.length;r++)if(!e[r].fixedrange)return!1;return!0}(l),_=[];function w(t){if(t.length){for(var r=[],n=0;n<t.length;n++){var i=t[n];-1===e.indexOf(i)&&r.push(s[i])}_.push(r)}}var k=[\\\"toImage\\\"];o&&k.push(\\\"sendDataToCloud\\\");w(k);var T=[],A=[],M=[],S=[];(u||g||p||d||v)+h+f+m+y>1?(A=[\\\"toggleHover\\\"],M=[\\\"resetViews\\\"]):h?(T=[\\\"zoomInGeo\\\",\\\"zoomOutGeo\\\"],A=[\\\"hoverClosestGeo\\\"],M=[\\\"resetGeo\\\"]):f?(A=[\\\"hoverClosest3d\\\"],M=[\\\"resetCameraDefault3d\\\",\\\"resetCameraLastSave3d\\\"]):m?(A=[\\\"toggleHover\\\"],M=[\\\"resetViewMapbox\\\"]):g?A=[\\\"hoverClosestGl2d\\\"]:p?A=[\\\"hoverClosestPie\\\"]:x?(A=[\\\"hoverClosestCartesian\\\",\\\"hoverCompareCartesian\\\"],M=[\\\"resetViewSankey\\\"]):A=[\\\"toggleHover\\\"];u&&(A=[\\\"toggleSpikelines\\\",\\\"hoverClosestCartesian\\\",\\\"hoverCompareCartesian\\\"]);!u&&!g||b||(T=[\\\"zoomIn2d\\\",\\\"zoomOut2d\\\",\\\"autoScale2d\\\"],\\\"resetViews\\\"!==M[0]&&(M=[\\\"resetScale2d\\\"]));f?S=[\\\"zoom3d\\\",\\\"pan3d\\\",\\\"orbitRotation\\\",\\\"tableRotation\\\"]:(u||g)&&!b||v?S=[\\\"zoom2d\\\",\\\"pan2d\\\"]:m||h?S=[\\\"pan2d\\\"]:y&&(S=[\\\"zoom2d\\\"]);(function(t){for(var e=!1,r=0;r<t.length&&!e;r++){var n=t[r];n._module&&n._module.selectPoints&&(a.traceIs(n,\\\"scatter-like\\\")?(i.hasMarkers(n)||i.hasText(n))&&(e=!0):a.traceIs(n,\\\"box-violin\\\")&&\\\"all\\\"!==n.boxpoints&&\\\"all\\\"!==n.points||(e=!0))}return e})(c)&&S.push(\\\"select2d\\\",\\\"lasso2d\\\");return w(S),w(T.concat(M)),w(A),function(t,e){if(e.length)if(Array.isArray(e[0]))for(var r=0;r<e.length;r++)t.push(e[r]);else t.push(e);return t}(_,r)}(t,r.modeBarButtonsToRemove,r.modeBarButtonsToAdd,r.showSendToCloud),l?l.update(t,c):e._modeBar=o(t,c)}else l&&(l.destroy(),delete e._modeBar)}},{\\\"../../plots/cartesian/axis_ids\\\":754,\\\"../../registry\\\":831,\\\"../../traces/scatter/subtypes\\\":1098,\\\"./buttons\\\":638,\\\"./modebar\\\":641}],641:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"fast-isnumeric\\\"),a=t(\\\"../../lib\\\"),o=t(\\\"../../../build/ploticon\\\"),s=new DOMParser;function l(t){this.container=t.container,this.element=document.createElement(\\\"div\\\"),this.update(t.graphInfo,t.buttons),this.container.appendChild(this.element)}var c=l.prototype;c.update=function(t,e){this.graphInfo=t;var r=this.graphInfo._context,n=this.graphInfo._fullLayout,i=\\\"modebar-\\\"+n._uid;this.element.setAttribute(\\\"id\\\",i),this._uid=i,this.element.className=\\\"modebar\\\",\\\"hover\\\"===r.displayModeBar&&(this.element.className+=\\\" modebar--hover ease-bg\\\"),\\\"v\\\"===n.modebar.orientation&&(this.element.className+=\\\" vertical\\\",e=e.reverse());var o=n.modebar,s=\\\"hover\\\"===r.displayModeBar?\\\".js-plotly-plot .plotly:hover \\\":\\\"\\\";a.deleteRelatedStyleRule(i),a.addRelatedStyleRule(i,s+\\\"#\\\"+i+\\\" .modebar-group\\\",\\\"background-color: \\\"+o.bgcolor),a.addRelatedStyleRule(i,\\\"#\\\"+i+\\\" .modebar-btn .icon path\\\",\\\"fill: \\\"+o.color),a.addRelatedStyleRule(i,\\\"#\\\"+i+\\\" .modebar-btn:hover .icon path\\\",\\\"fill: \\\"+o.activecolor),a.addRelatedStyleRule(i,\\\"#\\\"+i+\\\" .modebar-btn.active .icon path\\\",\\\"fill: \\\"+o.activecolor);var l=!this.hasButtons(e),c=this.hasLogo!==r.displaylogo,u=this.locale!==r.locale;if(this.locale=r.locale,(l||c||u)&&(this.removeAllButtons(),this.updateButtons(e),r.watermark||r.displaylogo)){var f=this.getLogo();r.watermark&&(f.className=f.className+\\\" watermark\\\"),\\\"v\\\"===n.modebar.orientation?this.element.insertBefore(f,this.element.childNodes[0]):this.element.appendChild(f),this.hasLogo=!0}this.updateActiveButton()},c.updateButtons=function(t){var e=this;this.buttons=t,this.buttonElements=[],this.buttonsNames=[],this.buttons.forEach(function(t){var r=e.createGroup();t.forEach(function(t){var n=t.name;if(!n)throw new Error(\\\"must provide button 'name' in button config\\\");if(-1!==e.buttonsNames.indexOf(n))throw new Error(\\\"button name '\\\"+n+\\\"' is taken\\\");e.buttonsNames.push(n);var i=e.createButton(t);e.buttonElements.push(i),r.appendChild(i)}),e.element.appendChild(r)})},c.createGroup=function(){var t=document.createElement(\\\"div\\\");return t.className=\\\"modebar-group\\\",t},c.createButton=function(t){var e=this,r=document.createElement(\\\"a\\\");r.setAttribute(\\\"rel\\\",\\\"tooltip\\\"),r.className=\\\"modebar-btn\\\";var i=t.title;void 0===i?i=t.name:\\\"function\\\"==typeof i&&(i=i(this.graphInfo)),(i||0===i)&&r.setAttribute(\\\"data-title\\\",i),void 0!==t.attr&&r.setAttribute(\\\"data-attr\\\",t.attr);var a=t.val;if(void 0!==a&&(\\\"function\\\"==typeof a&&(a=a(this.graphInfo)),r.setAttribute(\\\"data-val\\\",a)),\\\"function\\\"!=typeof t.click)throw new Error(\\\"must provide button 'click' function in button config\\\");r.addEventListener(\\\"click\\\",function(r){t.click(e.graphInfo,r),e.updateActiveButton(r.currentTarget)}),r.setAttribute(\\\"data-toggle\\\",t.toggle||!1),t.toggle&&n.select(r).classed(\\\"active\\\",!0);var s=t.icon;return\\\"function\\\"==typeof s?r.appendChild(s()):r.appendChild(this.createIcon(s||o.question)),r.setAttribute(\\\"data-gravity\\\",t.gravity||\\\"n\\\"),r},c.createIcon=function(t){var e,r=i(t.height)?Number(t.height):t.ascent-t.descent,n=\\\"http://www.w3.org/2000/svg\\\";if(t.path){(e=document.createElementNS(n,\\\"svg\\\")).setAttribute(\\\"viewBox\\\",[0,0,t.width,r].join(\\\" \\\")),e.setAttribute(\\\"class\\\",\\\"icon\\\");var a=document.createElementNS(n,\\\"path\\\");a.setAttribute(\\\"d\\\",t.path),t.transform?a.setAttribute(\\\"transform\\\",t.transform):void 0!==t.ascent&&a.setAttribute(\\\"transform\\\",\\\"matrix(1 0 0 -1 0 \\\"+t.ascent+\\\")\\\"),e.appendChild(a)}t.svg&&(e=s.parseFromString(t.svg,\\\"application/xml\\\").childNodes[0]);return e.setAttribute(\\\"height\\\",\\\"1em\\\"),e.setAttribute(\\\"width\\\",\\\"1em\\\"),e},c.updateActiveButton=function(t){var e=this.graphInfo._fullLayout,r=void 0!==t?t.getAttribute(\\\"data-attr\\\"):null;this.buttonElements.forEach(function(t){var i=t.getAttribute(\\\"data-val\\\")||!0,o=t.getAttribute(\\\"data-attr\\\"),s=\\\"true\\\"===t.getAttribute(\\\"data-toggle\\\"),l=n.select(t);if(s)o===r&&l.classed(\\\"active\\\",!l.classed(\\\"active\\\"));else{var c=null===o?o:a.nestedProperty(e,o).get();l.classed(\\\"active\\\",c===i)}})},c.hasButtons=function(t){var e=this.buttons;if(!e)return!1;if(t.length!==e.length)return!1;for(var r=0;r<t.length;++r){if(t[r].length!==e[r].length)return!1;for(var n=0;n<t[r].length;n++)if(t[r][n].name!==e[r][n].name)return!1}return!0},c.getLogo=function(){var t=this.createGroup(),e=document.createElement(\\\"a\\\");return e.href=\\\"https://plot.ly/\\\",e.target=\\\"_blank\\\",e.setAttribute(\\\"data-title\\\",a._(this.graphInfo,\\\"Produced with Plotly\\\")),e.className=\\\"modebar-btn plotlyjsicon modebar-btn--logo\\\",e.appendChild(this.createIcon(o.newplotlylogo)),t.appendChild(e),t},c.removeAllButtons=function(){for(;this.element.firstChild;)this.element.removeChild(this.element.firstChild);this.hasLogo=!1},c.destroy=function(){a.removeElement(this.container.querySelector(\\\".modebar\\\")),a.deleteRelatedStyleRule(this._uid)},e.exports=function(t,e){var r=t._fullLayout,i=new l({graphInfo:t,container:r._modebardiv.node(),buttons:e});return r._privateplot&&n.select(i.element).append(\\\"span\\\").classed(\\\"badge-private float--left\\\",!0).text(\\\"PRIVATE\\\"),i}},{\\\"../../../build/ploticon\\\":2,\\\"../../lib\\\":703,d3:157,\\\"fast-isnumeric\\\":224}],642:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/font_attributes\\\"),i=t(\\\"../color/attributes\\\"),a=(0,t(\\\"../../plot_api/plot_template\\\").templatedArray)(\\\"button\\\",{visible:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"plot\\\"},step:{valType:\\\"enumerated\\\",values:[\\\"month\\\",\\\"year\\\",\\\"day\\\",\\\"hour\\\",\\\"minute\\\",\\\"second\\\",\\\"all\\\"],dflt:\\\"month\\\",editType:\\\"plot\\\"},stepmode:{valType:\\\"enumerated\\\",values:[\\\"backward\\\",\\\"todate\\\"],dflt:\\\"backward\\\",editType:\\\"plot\\\"},count:{valType:\\\"number\\\",min:0,dflt:1,editType:\\\"plot\\\"},label:{valType:\\\"string\\\",editType:\\\"plot\\\"},editType:\\\"plot\\\"});e.exports={visible:{valType:\\\"boolean\\\",editType:\\\"plot\\\"},buttons:a,x:{valType:\\\"number\\\",min:-2,max:3,editType:\\\"plot\\\"},xanchor:{valType:\\\"enumerated\\\",values:[\\\"auto\\\",\\\"left\\\",\\\"center\\\",\\\"right\\\"],dflt:\\\"left\\\",editType:\\\"plot\\\"},y:{valType:\\\"number\\\",min:-2,max:3,editType:\\\"plot\\\"},yanchor:{valType:\\\"enumerated\\\",values:[\\\"auto\\\",\\\"top\\\",\\\"middle\\\",\\\"bottom\\\"],dflt:\\\"bottom\\\",editType:\\\"plot\\\"},font:n({editType:\\\"plot\\\"}),bgcolor:{valType:\\\"color\\\",dflt:i.lightLine,editType:\\\"plot\\\"},activecolor:{valType:\\\"color\\\",editType:\\\"plot\\\"},bordercolor:{valType:\\\"color\\\",dflt:i.defaultLine,editType:\\\"plot\\\"},borderwidth:{valType:\\\"number\\\",min:0,dflt:0,editType:\\\"plot\\\"},editType:\\\"plot\\\"}},{\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/font_attributes\\\":777,\\\"../color/attributes\\\":579}],643:[function(t,e,r){\\\"use strict\\\";e.exports={yPad:.02,minButtonWidth:30,rx:3,ry:3,lightAmount:25,darkAmount:10}},{}],644:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../color\\\"),a=t(\\\"../../plot_api/plot_template\\\"),o=t(\\\"../../plots/array_container_defaults\\\"),s=t(\\\"./attributes\\\"),l=t(\\\"./constants\\\");function c(t,e,r,i){var a=i.calendar;function o(r,i){return n.coerce(t,e,s.buttons,r,i)}if(o(\\\"visible\\\")){var l=o(\\\"step\\\");\\\"all\\\"!==l&&(!a||\\\"gregorian\\\"===a||\\\"month\\\"!==l&&\\\"year\\\"!==l?o(\\\"stepmode\\\"):e.stepmode=\\\"backward\\\",o(\\\"count\\\")),o(\\\"label\\\")}}e.exports=function(t,e,r,u,f){var h=t.rangeselector||{},p=a.newContainer(e,\\\"rangeselector\\\");function d(t,e){return n.coerce(h,p,s,t,e)}if(d(\\\"visible\\\",o(h,p,{name:\\\"buttons\\\",handleItemDefaults:c,calendar:f}).length>0)){var g=function(t,e,r){for(var n=r.filter(function(r){return e[r].anchor===t._id}),i=0,a=0;a<n.length;a++){var o=e[n[a]].domain;o&&(i=Math.max(o[1],i))}return[t.domain[0],i+l.yPad]}(e,r,u);d(\\\"x\\\",g[0]),d(\\\"y\\\",g[1]),n.noneOrAll(t,e,[\\\"x\\\",\\\"y\\\"]),d(\\\"xanchor\\\"),d(\\\"yanchor\\\"),n.coerceFont(d,\\\"font\\\",r.font);var v=d(\\\"bgcolor\\\");d(\\\"activecolor\\\",i.contrast(v,l.lightAmount,l.darkAmount)),d(\\\"bordercolor\\\"),d(\\\"borderwidth\\\")}}},{\\\"../../lib\\\":703,\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/array_container_defaults\\\":747,\\\"../color\\\":580,\\\"./attributes\\\":642,\\\"./constants\\\":643}],645:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"../../plots/plots\\\"),o=t(\\\"../color\\\"),s=t(\\\"../drawing\\\"),l=t(\\\"../../lib\\\"),c=t(\\\"../../lib/svg_text_utils\\\"),u=t(\\\"../../plots/cartesian/axis_ids\\\"),f=t(\\\"../../constants/alignment\\\"),h=f.LINE_SPACING,p=f.FROM_TL,d=f.FROM_BR,g=t(\\\"./constants\\\"),v=t(\\\"./get_update_object\\\");function m(t){return t._id}function y(t,e,r){var n=l.ensureSingle(t,\\\"rect\\\",\\\"selector-rect\\\",function(t){t.attr(\\\"shape-rendering\\\",\\\"crispEdges\\\")});n.attr({rx:g.rx,ry:g.ry}),n.call(o.stroke,e.bordercolor).call(o.fill,function(t,e){return e._isActive||e._isHovered?t.activecolor:t.bgcolor}(e,r)).style(\\\"stroke-width\\\",e.borderwidth+\\\"px\\\")}function x(t,e,r,n){l.ensureSingle(t,\\\"text\\\",\\\"selector-text\\\",function(t){t.classed(\\\"user-select-none\\\",!0).attr(\\\"text-anchor\\\",\\\"middle\\\")}).call(s.font,e.font).text(function(t,e){if(t.label)return e?l.templateString(t.label,e):t.label;return\\\"all\\\"===t.step?\\\"all\\\":t.count+t.step.charAt(0)}(r,n._fullLayout._meta)).call(function(t){c.convertToTspans(t,n)})}e.exports=function(t){var e=t._fullLayout._infolayer.selectAll(\\\".rangeselector\\\").data(function(t){for(var e=u.list(t,\\\"x\\\",!0),r=[],n=0;n<e.length;n++){var i=e[n];i.rangeselector&&i.rangeselector.visible&&r.push(i)}return r}(t),m);e.enter().append(\\\"g\\\").classed(\\\"rangeselector\\\",!0),e.exit().remove(),e.style({cursor:\\\"pointer\\\",\\\"pointer-events\\\":\\\"all\\\"}),e.each(function(e){var r=n.select(this),o=e,u=o.rangeselector,f=r.selectAll(\\\"g.button\\\").data(l.filterVisible(u.buttons));f.enter().append(\\\"g\\\").classed(\\\"button\\\",!0),f.exit().remove(),f.each(function(e){var r=n.select(this),a=v(o,e);e._isActive=function(t,e,r){if(\\\"all\\\"===e.step)return!0===t.autorange;var n=Object.keys(r);return t.range[0]===r[n[0]]&&t.range[1]===r[n[1]]}(o,e,a),r.call(y,u,e),r.call(x,u,e,t),r.on(\\\"click\\\",function(){t._dragged||i.call(\\\"_guiRelayout\\\",t,a)}),r.on(\\\"mouseover\\\",function(){e._isHovered=!0,r.call(y,u,e)}),r.on(\\\"mouseout\\\",function(){e._isHovered=!1,r.call(y,u,e)})}),function(t,e,r,i,o){var u=0,f=0,v=r.borderwidth;e.each(function(){var t=n.select(this),e=t.select(\\\".selector-text\\\"),i=r.font.size*h,a=Math.max(i*c.lineCount(e),16)+3;f=Math.max(f,a)}),e.each(function(){var t=n.select(this),e=t.select(\\\".selector-rect\\\"),i=t.select(\\\".selector-text\\\"),a=i.node()&&s.bBox(i.node()).width,o=r.font.size*h,l=c.lineCount(i),p=Math.max(a+10,g.minButtonWidth);t.attr(\\\"transform\\\",\\\"translate(\\\"+(v+u)+\\\",\\\"+v+\\\")\\\"),e.attr({x:0,y:0,width:p,height:f}),c.positionText(i,p/2,f/2-(l-1)*o/2+3),u+=p+5});var m=t._fullLayout._size,y=m.l+m.w*r.x,x=m.t+m.h*(1-r.y),b=\\\"left\\\";l.isRightAnchor(r)&&(y-=u,b=\\\"right\\\");l.isCenterAnchor(r)&&(y-=u/2,b=\\\"center\\\");var _=\\\"top\\\";l.isBottomAnchor(r)&&(x-=f,_=\\\"bottom\\\");l.isMiddleAnchor(r)&&(x-=f/2,_=\\\"middle\\\");u=Math.ceil(u),f=Math.ceil(f),y=Math.round(y),x=Math.round(x),a.autoMargin(t,i+\\\"-range-selector\\\",{x:r.x,y:r.y,l:u*p[b],r:u*d[b],b:f*d[_],t:f*p[_]}),o.attr(\\\"transform\\\",\\\"translate(\\\"+y+\\\",\\\"+x+\\\")\\\")}(t,f,u,o._name,r)})}},{\\\"../../constants/alignment\\\":675,\\\"../../lib\\\":703,\\\"../../lib/svg_text_utils\\\":727,\\\"../../plots/cartesian/axis_ids\\\":754,\\\"../../plots/plots\\\":812,\\\"../../registry\\\":831,\\\"../color\\\":580,\\\"../drawing\\\":601,\\\"./constants\\\":643,\\\"./get_update_object\\\":646,d3:157}],646:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\");e.exports=function(t,e){var r=t._name,i={};if(\\\"all\\\"===e.step)i[r+\\\".autorange\\\"]=!0;else{var a=function(t,e){var r,i=t.range,a=new Date(t.r2l(i[1])),o=e.step,s=e.count;switch(e.stepmode){case\\\"backward\\\":r=t.l2r(+n.time[o].utc.offset(a,-s));break;case\\\"todate\\\":var l=n.time[o].utc.offset(a,-s);r=t.l2r(+n.time[o].utc.ceil(l))}var c=i[1];return[r,c]}(t,e);i[r+\\\".range[0]\\\"]=a[0],i[r+\\\".range[1]\\\"]=a[1]}return i}},{d3:157}],647:[function(t,e,r){\\\"use strict\\\";e.exports={moduleType:\\\"component\\\",name:\\\"rangeselector\\\",schema:{subplots:{xaxis:{rangeselector:t(\\\"./attributes\\\")}}},layoutAttributes:t(\\\"./attributes\\\"),handleDefaults:t(\\\"./defaults\\\"),draw:t(\\\"./draw\\\")}},{\\\"./attributes\\\":642,\\\"./defaults\\\":644,\\\"./draw\\\":645}],648:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../color/attributes\\\");e.exports={bgcolor:{valType:\\\"color\\\",dflt:n.background,editType:\\\"plot\\\"},bordercolor:{valType:\\\"color\\\",dflt:n.defaultLine,editType:\\\"plot\\\"},borderwidth:{valType:\\\"integer\\\",dflt:0,min:0,editType:\\\"plot\\\"},autorange:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\",impliedEdits:{\\\"range[0]\\\":void 0,\\\"range[1]\\\":void 0}},range:{valType:\\\"info_array\\\",items:[{valType:\\\"any\\\",editType:\\\"calc\\\",impliedEdits:{\\\"^autorange\\\":!1}},{valType:\\\"any\\\",editType:\\\"calc\\\",impliedEdits:{\\\"^autorange\\\":!1}}],editType:\\\"calc\\\",impliedEdits:{autorange:!1}},thickness:{valType:\\\"number\\\",dflt:.15,min:0,max:1,editType:\\\"plot\\\"},visible:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"},editType:\\\"calc\\\"}},{\\\"../color/attributes\\\":579}],649:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/axis_ids\\\").list,i=t(\\\"../../plots/cartesian/autorange\\\").getAutoRange,a=t(\\\"./constants\\\");e.exports=function(t){for(var e=n(t,\\\"x\\\",!0),r=0;r<e.length;r++){var o=e[r],s=o[a.name];s&&s.visible&&s.autorange&&(s._input.autorange=!0,s._input.range=s.range=i(t,o))}}},{\\\"../../plots/cartesian/autorange\\\":750,\\\"../../plots/cartesian/axis_ids\\\":754,\\\"./constants\\\":650}],650:[function(t,e,r){\\\"use strict\\\";e.exports={name:\\\"rangeslider\\\",containerClassName:\\\"rangeslider-container\\\",bgClassName:\\\"rangeslider-bg\\\",rangePlotClassName:\\\"rangeslider-rangeplot\\\",maskMinClassName:\\\"rangeslider-mask-min\\\",maskMaxClassName:\\\"rangeslider-mask-max\\\",slideBoxClassName:\\\"rangeslider-slidebox\\\",grabberMinClassName:\\\"rangeslider-grabber-min\\\",grabAreaMinClassName:\\\"rangeslider-grabarea-min\\\",handleMinClassName:\\\"rangeslider-handle-min\\\",grabberMaxClassName:\\\"rangeslider-grabber-max\\\",grabAreaMaxClassName:\\\"rangeslider-grabarea-max\\\",handleMaxClassName:\\\"rangeslider-handle-max\\\",maskMinOppAxisClassName:\\\"rangeslider-mask-min-opp-axis\\\",maskMaxOppAxisClassName:\\\"rangeslider-mask-max-opp-axis\\\",maskColor:\\\"rgba(0,0,0,0.4)\\\",maskOppAxisColor:\\\"rgba(0,0,0,0.2)\\\",slideBoxFill:\\\"transparent\\\",slideBoxCursor:\\\"ew-resize\\\",grabAreaFill:\\\"transparent\\\",grabAreaCursor:\\\"col-resize\\\",grabAreaWidth:10,handleWidth:4,handleRadius:1,handleStrokeWidth:1,extraPad:15}},{}],651:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plot_api/plot_template\\\"),a=t(\\\"../../plots/cartesian/axis_ids\\\"),o=t(\\\"./attributes\\\"),s=t(\\\"./oppaxis_attributes\\\");e.exports=function(t,e,r){var l=t[r],c=e[r];if(l.rangeslider||e._requestRangeslider[c._id]){n.isPlainObject(l.rangeslider)||(l.rangeslider={});var u,f,h=l.rangeslider,p=i.newContainer(c,\\\"rangeslider\\\");if(_(\\\"visible\\\")){_(\\\"bgcolor\\\",e.plot_bgcolor),_(\\\"bordercolor\\\"),_(\\\"borderwidth\\\"),_(\\\"thickness\\\"),_(\\\"autorange\\\",!c.isValidRange(h.range)),_(\\\"range\\\");var d=e._subplots;if(d)for(var g=d.cartesian.filter(function(t){return t.substr(0,t.indexOf(\\\"y\\\"))===a.name2id(r)}).map(function(t){return t.substr(t.indexOf(\\\"y\\\"),t.length)}),v=n.simpleMap(g,a.id2name),m=0;m<v.length;m++){var y=v[m];u=h[y]||{},f=i.newContainer(p,y,\\\"yaxis\\\");var x,b=e[y];u.range&&b.isValidRange(u.range)&&(x=\\\"fixed\\\"),\\\"match\\\"!==w(\\\"rangemode\\\",x)&&w(\\\"range\\\",b.range.slice())}p._input=h}}function _(t,e){return n.coerce(h,p,o,t,e)}function w(t,e){return n.coerce(u,f,s,t,e)}}},{\\\"../../lib\\\":703,\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/cartesian/axis_ids\\\":754,\\\"./attributes\\\":648,\\\"./oppaxis_attributes\\\":655}],652:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"../../plots/plots\\\"),o=t(\\\"../../lib\\\"),s=t(\\\"../drawing\\\"),l=t(\\\"../color\\\"),c=t(\\\"../titles\\\"),u=t(\\\"../../plots/cartesian\\\"),f=t(\\\"../../plots/cartesian/axis_ids\\\"),h=t(\\\"../dragelement\\\"),p=t(\\\"../../lib/setcursor\\\"),d=t(\\\"./constants\\\");function g(t,e,r,n){var i=o.ensureSingle(t,\\\"rect\\\",d.bgClassName,function(t){t.attr({x:0,y:0,\\\"shape-rendering\\\":\\\"crispEdges\\\"})}),a=n.borderwidth%2==0?n.borderwidth:n.borderwidth-1,l=-n._offsetShift,c=s.crispRound(e,n.borderwidth);i.attr({width:n._width+a,height:n._height+a,transform:\\\"translate(\\\"+l+\\\",\\\"+l+\\\")\\\",fill:n.bgcolor,stroke:n.bordercolor,\\\"stroke-width\\\":c})}function v(t,e,r,n){var i=e._fullLayout;o.ensureSingleById(i._topdefs,\\\"clipPath\\\",n._clipId,function(t){t.append(\\\"rect\\\").attr({x:0,y:0})}).select(\\\"rect\\\").attr({width:n._width,height:n._height})}function m(t,e,r,i){var l,c=e.calcdata,h=t.selectAll(\\\"g.\\\"+d.rangePlotClassName).data(r._subplotsWith,o.identity);h.enter().append(\\\"g\\\").attr(\\\"class\\\",function(t){return d.rangePlotClassName+\\\" \\\"+t}).call(s.setClipUrl,i._clipId,e),h.order(),h.exit().remove(),h.each(function(t,o){var s=n.select(this),h=0===o,p=f.getFromId(e,t,\\\"y\\\"),d=p._name,g=i[d],v={data:[],layout:{xaxis:{type:r.type,domain:[0,1],range:i.range.slice(),calendar:r.calendar},width:i._width,height:i._height,margin:{t:0,b:0,l:0,r:0}},_context:e._context};v.layout[d]={type:p.type,domain:[0,1],range:\\\"match\\\"!==g.rangemode?g.range.slice():p.range.slice(),calendar:p.calendar},a.supplyDefaults(v);var m=v._fullLayout.xaxis,y=v._fullLayout[d];m.clearCalc(),m.setScale(),y.clearCalc(),y.setScale();var x={id:t,plotgroup:s,xaxis:m,yaxis:y,isRangePlot:!0};h?l=x:(x.mainplot=\\\"xy\\\",x.mainplotinfo=l),u.rangePlot(e,x,function(t,e){for(var r=[],n=0;n<t.length;n++){var i=t[n],a=i[0].trace;a.xaxis+a.yaxis===e&&r.push(i)}return r}(c,t))})}function y(t,e,r,n,i){(o.ensureSingle(t,\\\"rect\\\",d.maskMinClassName,function(t){t.attr({x:0,y:0,\\\"shape-rendering\\\":\\\"crispEdges\\\"})}).attr(\\\"height\\\",n._height).call(l.fill,d.maskColor),o.ensureSingle(t,\\\"rect\\\",d.maskMaxClassName,function(t){t.attr({y:0,\\\"shape-rendering\\\":\\\"crispEdges\\\"})}).attr(\\\"height\\\",n._height).call(l.fill,d.maskColor),\\\"match\\\"!==i.rangemode)&&(o.ensureSingle(t,\\\"rect\\\",d.maskMinOppAxisClassName,function(t){t.attr({y:0,\\\"shape-rendering\\\":\\\"crispEdges\\\"})}).attr(\\\"width\\\",n._width).call(l.fill,d.maskOppAxisColor),o.ensureSingle(t,\\\"rect\\\",d.maskMaxOppAxisClassName,function(t){t.attr({y:0,\\\"shape-rendering\\\":\\\"crispEdges\\\"})}).attr(\\\"width\\\",n._width).style(\\\"border-top\\\",d.maskOppBorder).call(l.fill,d.maskOppAxisColor))}function x(t,e,r,n){e._context.staticPlot||o.ensureSingle(t,\\\"rect\\\",d.slideBoxClassName,function(t){t.attr({y:0,cursor:d.slideBoxCursor,\\\"shape-rendering\\\":\\\"crispEdges\\\"})}).attr({height:n._height,fill:d.slideBoxFill})}function b(t,e,r,n){var i=o.ensureSingle(t,\\\"g\\\",d.grabberMinClassName),a=o.ensureSingle(t,\\\"g\\\",d.grabberMaxClassName),s={x:0,width:d.handleWidth,rx:d.handleRadius,fill:l.background,stroke:l.defaultLine,\\\"stroke-width\\\":d.handleStrokeWidth,\\\"shape-rendering\\\":\\\"crispEdges\\\"},c={y:Math.round(n._height/4),height:Math.round(n._height/2)};if(o.ensureSingle(i,\\\"rect\\\",d.handleMinClassName,function(t){t.attr(s)}).attr(c),o.ensureSingle(a,\\\"rect\\\",d.handleMaxClassName,function(t){t.attr(s)}).attr(c),!e._context.staticPlot){var u={width:d.grabAreaWidth,x:0,y:0,fill:d.grabAreaFill,cursor:d.grabAreaCursor};o.ensureSingle(i,\\\"rect\\\",d.grabAreaMinClassName,function(t){t.attr(u)}).attr(\\\"height\\\",n._height),o.ensureSingle(a,\\\"rect\\\",d.grabAreaMaxClassName,function(t){t.attr(u)}).attr(\\\"height\\\",n._height)}}e.exports=function(t){for(var e=t._fullLayout,r=e._rangeSliderData,a=0;a<r.length;a++){var s=r[a][d.name];s._clipId=s._id+\\\"-\\\"+e._uid}var l=e._infolayer.selectAll(\\\"g.\\\"+d.containerClassName).data(r,function(t){return t._name});l.exit().each(function(t){var r=t[d.name];e._topdefs.select(\\\"#\\\"+r._clipId).remove()}).remove(),0!==r.length&&(l.enter().append(\\\"g\\\").classed(d.containerClassName,!0).attr(\\\"pointer-events\\\",\\\"all\\\"),l.each(function(r){var a=n.select(this),s=r[d.name],l=e[f.id2name(r.anchor)],u=s[f.id2name(r.anchor)];if(s.range){var _,w=o.simpleMap(s.range,r.r2l),k=o.simpleMap(r.range,r.r2l);_=k[0]<k[1]?[Math.min(w[0],k[0]),Math.max(w[1],k[1])]:[Math.max(w[0],k[0]),Math.min(w[1],k[1])],s.range=s._input.range=o.simpleMap(_,r.l2r)}r.cleanRange(\\\"rangeslider.range\\\");var T=e.margin,A=e._size,M=r.domain,S=s._tickHeight,E=s._oppBottom;s._width=A.w*(M[1]-M[0]);var C=Math.round(T.l+A.w*M[0]),L=Math.round(A.t+A.h*(1-E)+S+s._offsetShift+d.extraPad);a.attr(\\\"transform\\\",\\\"translate(\\\"+C+\\\",\\\"+L+\\\")\\\");var z=r.r2l(s.range[0]),O=r.r2l(s.range[1]),I=O-z;if(s.p2d=function(t){return t/s._width*I+z},s.d2p=function(t){return(t-z)/I*s._width},s._rl=[z,O],\\\"match\\\"!==u.rangemode){var D=l.r2l(u.range[0]),P=l.r2l(u.range[1])-D;s.d2pOppAxis=function(t){return(t-D)/P*s._height}}a.call(g,t,r,s).call(v,t,r,s).call(m,t,r,s).call(y,t,r,s,u).call(x,t,r,s).call(b,t,r,s),function(t,e,r,a){var s=t.select(\\\"rect.\\\"+d.slideBoxClassName).node(),l=t.select(\\\"rect.\\\"+d.grabAreaMinClassName).node(),c=t.select(\\\"rect.\\\"+d.grabAreaMaxClassName).node();t.on(\\\"mousedown\\\",function(){var u=n.event,f=u.target,d=u.clientX,g=d-t.node().getBoundingClientRect().left,v=a.d2p(r._rl[0]),m=a.d2p(r._rl[1]),y=h.coverSlip();function x(t){var u,h,x,b=+t.clientX-d;switch(f){case s:x=\\\"ew-resize\\\",u=v+b,h=m+b;break;case l:x=\\\"col-resize\\\",u=v+b,h=m;break;case c:x=\\\"col-resize\\\",u=v,h=m+b;break;default:x=\\\"ew-resize\\\",u=g,h=g+b}if(h<u){var _=h;h=u,u=_}a._pixelMin=u,a._pixelMax=h,p(n.select(y),x),function(t,e,r,n){function a(t){return r.l2r(o.constrain(t,n._rl[0],n._rl[1]))}var s=a(n.p2d(n._pixelMin)),l=a(n.p2d(n._pixelMax));window.requestAnimationFrame(function(){i.call(\\\"_guiRelayout\\\",e,r._name+\\\".range\\\",[s,l])})}(0,e,r,a)}y.addEventListener(\\\"mousemove\\\",x),y.addEventListener(\\\"mouseup\\\",function t(){y.removeEventListener(\\\"mousemove\\\",x);y.removeEventListener(\\\"mouseup\\\",t);o.removeElement(y)})})}(a,t,r,s),function(t,e,r,n,i,a){var s=d.handleWidth/2;function l(t){return o.constrain(t,0,n._width)}function c(t){return o.constrain(t,0,n._height)}function u(t){return o.constrain(t,-s,n._width+s)}var f=l(n.d2p(r._rl[0])),h=l(n.d2p(r._rl[1]));if(t.select(\\\"rect.\\\"+d.slideBoxClassName).attr(\\\"x\\\",f).attr(\\\"width\\\",h-f),t.select(\\\"rect.\\\"+d.maskMinClassName).attr(\\\"width\\\",f),t.select(\\\"rect.\\\"+d.maskMaxClassName).attr(\\\"x\\\",h).attr(\\\"width\\\",n._width-h),\\\"match\\\"!==a.rangemode){var p=n._height-c(n.d2pOppAxis(i._rl[1])),g=n._height-c(n.d2pOppAxis(i._rl[0]));t.select(\\\"rect.\\\"+d.maskMinOppAxisClassName).attr(\\\"x\\\",f).attr(\\\"height\\\",p).attr(\\\"width\\\",h-f),t.select(\\\"rect.\\\"+d.maskMaxOppAxisClassName).attr(\\\"x\\\",f).attr(\\\"y\\\",g).attr(\\\"height\\\",n._height-g).attr(\\\"width\\\",h-f),t.select(\\\"rect.\\\"+d.slideBoxClassName).attr(\\\"y\\\",p).attr(\\\"height\\\",g-p)}var v=Math.round(u(f-s))-.5,m=Math.round(u(h-s))+.5;t.select(\\\"g.\\\"+d.grabberMinClassName).attr(\\\"transform\\\",\\\"translate(\\\"+v+\\\",0.5)\\\"),t.select(\\\"g.\\\"+d.grabberMaxClassName).attr(\\\"transform\\\",\\\"translate(\\\"+m+\\\",0.5)\\\")}(a,0,r,s,l,u),\\\"bottom\\\"===r.side&&c.draw(t,r._id+\\\"title\\\",{propContainer:r,propName:r._name+\\\".title\\\",placeholder:e._dfltTitle.x,attributes:{x:r._offset+r._length/2,y:L+s._height+s._offsetShift+10+1.5*r.title.font.size,\\\"text-anchor\\\":\\\"middle\\\"}})}))}},{\\\"../../lib\\\":703,\\\"../../lib/setcursor\\\":723,\\\"../../plots/cartesian\\\":762,\\\"../../plots/cartesian/axis_ids\\\":754,\\\"../../plots/plots\\\":812,\\\"../../registry\\\":831,\\\"../color\\\":580,\\\"../dragelement\\\":598,\\\"../drawing\\\":601,\\\"../titles\\\":668,\\\"./constants\\\":650,d3:157}],653:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/axis_ids\\\"),i=t(\\\"./constants\\\"),a=i.name;function o(t){var e=t&&t[a];return e&&e.visible}r.isVisible=o,r.makeData=function(t){var e=n.list({_fullLayout:t},\\\"x\\\",!0),r=t.margin,i=[];if(!t._has(\\\"gl2d\\\"))for(var s=0;s<e.length;s++){var l=e[s];if(o(l)){i.push(l);var c=l[a];c._id=a+l._id,c._height=(t.height-r.b-r.t)*c.thickness,c._offsetShift=Math.floor(c.borderwidth/2)}}t._rangeSliderData=i},r.autoMarginOpts=function(t,e){for(var r=e[a],o=1/0,s=e._counterAxes,l=0;l<s.length;l++){var c=s[l],u=n.getFromId(t,c);o=Math.min(o,u.domain[0])}r._oppBottom=o;var f=\\\"bottom\\\"===e.side&&e._boundingBox.height||0;return r._tickHeight=f,{x:0,y:o,l:0,r:0,t:0,b:r._height+t._fullLayout.margin.b+f,pad:i.extraPad+2*r._offsetShift}}},{\\\"../../plots/cartesian/axis_ids\\\":754,\\\"./constants\\\":650}],654:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./attributes\\\"),a=t(\\\"./oppaxis_attributes\\\"),o=t(\\\"./helpers\\\");e.exports={moduleType:\\\"component\\\",name:\\\"rangeslider\\\",schema:{subplots:{xaxis:{rangeslider:n.extendFlat({},i,{yaxis:a})}}},layoutAttributes:t(\\\"./attributes\\\"),handleDefaults:t(\\\"./defaults\\\"),calcAutorange:t(\\\"./calc_autorange\\\"),draw:t(\\\"./draw\\\"),isVisible:o.isVisible,makeData:o.makeData,autoMarginOpts:o.autoMarginOpts}},{\\\"../../lib\\\":703,\\\"./attributes\\\":648,\\\"./calc_autorange\\\":649,\\\"./defaults\\\":651,\\\"./draw\\\":652,\\\"./helpers\\\":653,\\\"./oppaxis_attributes\\\":655}],655:[function(t,e,r){\\\"use strict\\\";e.exports={_isSubplotObj:!0,rangemode:{valType:\\\"enumerated\\\",values:[\\\"auto\\\",\\\"fixed\\\",\\\"match\\\"],dflt:\\\"match\\\",editType:\\\"calc\\\"},range:{valType:\\\"info_array\\\",items:[{valType:\\\"any\\\",editType:\\\"plot\\\"},{valType:\\\"any\\\",editType:\\\"plot\\\"}],editType:\\\"plot\\\"},editType:\\\"calc\\\"}},{}],656:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../annotations/attributes\\\"),i=t(\\\"../../traces/scatter/attributes\\\").line,a=t(\\\"../drawing/attributes\\\").dash,o=t(\\\"../../lib/extend\\\").extendFlat,s=t(\\\"../../plot_api/plot_template\\\").templatedArray;e.exports=s(\\\"shape\\\",{visible:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc+arraydraw\\\"},type:{valType:\\\"enumerated\\\",values:[\\\"circle\\\",\\\"rect\\\",\\\"path\\\",\\\"line\\\"],editType:\\\"calc+arraydraw\\\"},layer:{valType:\\\"enumerated\\\",values:[\\\"below\\\",\\\"above\\\"],dflt:\\\"above\\\",editType:\\\"arraydraw\\\"},xref:o({},n.xref,{}),xsizemode:{valType:\\\"enumerated\\\",values:[\\\"scaled\\\",\\\"pixel\\\"],dflt:\\\"scaled\\\",editType:\\\"calc+arraydraw\\\"},xanchor:{valType:\\\"any\\\",editType:\\\"calc+arraydraw\\\"},x0:{valType:\\\"any\\\",editType:\\\"calc+arraydraw\\\"},x1:{valType:\\\"any\\\",editType:\\\"calc+arraydraw\\\"},yref:o({},n.yref,{}),ysizemode:{valType:\\\"enumerated\\\",values:[\\\"scaled\\\",\\\"pixel\\\"],dflt:\\\"scaled\\\",editType:\\\"calc+arraydraw\\\"},yanchor:{valType:\\\"any\\\",editType:\\\"calc+arraydraw\\\"},y0:{valType:\\\"any\\\",editType:\\\"calc+arraydraw\\\"},y1:{valType:\\\"any\\\",editType:\\\"calc+arraydraw\\\"},path:{valType:\\\"string\\\",editType:\\\"calc+arraydraw\\\"},opacity:{valType:\\\"number\\\",min:0,max:1,dflt:1,editType:\\\"arraydraw\\\"},line:{color:o({},i.color,{editType:\\\"arraydraw\\\"}),width:o({},i.width,{editType:\\\"calc+arraydraw\\\"}),dash:o({},a,{editType:\\\"arraydraw\\\"}),editType:\\\"calc+arraydraw\\\"},fillcolor:{valType:\\\"color\\\",dflt:\\\"rgba(0,0,0,0)\\\",editType:\\\"arraydraw\\\"},editType:\\\"arraydraw\\\"})},{\\\"../../lib/extend\\\":693,\\\"../../plot_api/plot_template\\\":741,\\\"../../traces/scatter/attributes\\\":1075,\\\"../annotations/attributes\\\":563,\\\"../drawing/attributes\\\":600}],657:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plots/cartesian/axes\\\"),a=t(\\\"./constants\\\"),o=t(\\\"./helpers\\\");function s(t){return c(t.line.width,t.xsizemode,t.x0,t.x1,t.path,!1)}function l(t){return c(t.line.width,t.ysizemode,t.y0,t.y1,t.path,!0)}function c(t,e,r,i,s,l){var c=t/2,u=l;if(\\\"pixel\\\"===e){var f=s?o.extractPathCoords(s,l?a.paramIsY:a.paramIsX):[r,i],h=n.aggNums(Math.max,null,f),p=n.aggNums(Math.min,null,f),d=p<0?Math.abs(p)+c:c,g=h>0?h+c:c;return{ppad:c,ppadplus:u?d:g,ppadminus:u?g:d}}return{ppad:c}}function u(t,e,r,n,i){var s=\\\"category\\\"===t.type||\\\"multicategory\\\"===t.type?t.r2c:t.d2c;if(void 0!==e)return[s(e),s(r)];if(n){var l,c,u,f,h=1/0,p=-1/0,d=n.match(a.segmentRE);for(\\\"date\\\"===t.type&&(s=o.decodeDate(s)),l=0;l<d.length;l++)void 0!==(c=i[d[l].charAt(0)].drawn)&&(!(u=d[l].substr(1).match(a.paramRE))||u.length<c||((f=s(u[c]))<h&&(h=f),f>p&&(p=f)));return p>=h?[h,p]:void 0}}e.exports=function(t){var e=t._fullLayout,r=n.filterVisible(e.shapes);if(r.length&&t._fullData.length)for(var o=0;o<r.length;o++){var c,f,h=r[o];if(h._extremes={},\\\"paper\\\"!==h.xref){var p=\\\"pixel\\\"===h.xsizemode?h.xanchor:h.x0,d=\\\"pixel\\\"===h.xsizemode?h.xanchor:h.x1;(f=u(c=i.getFromId(t,h.xref),p,d,h.path,a.paramIsX))&&(h._extremes[c._id]=i.findExtremes(c,f,s(h)))}if(\\\"paper\\\"!==h.yref){var g=\\\"pixel\\\"===h.ysizemode?h.yanchor:h.y0,v=\\\"pixel\\\"===h.ysizemode?h.yanchor:h.y1;(f=u(c=i.getFromId(t,h.yref),g,v,h.path,a.paramIsY))&&(h._extremes[c._id]=i.findExtremes(c,f,l(h)))}}}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"./constants\\\":658,\\\"./helpers\\\":661}],658:[function(t,e,r){\\\"use strict\\\";e.exports={segmentRE:/[MLHVQCTSZ][^MLHVQCTSZ]*/g,paramRE:/[^\\\\s,]+/g,paramIsX:{M:{0:!0,drawn:0},L:{0:!0,drawn:0},H:{0:!0,drawn:0},V:{},Q:{0:!0,2:!0,drawn:2},C:{0:!0,2:!0,4:!0,drawn:4},T:{0:!0,drawn:0},S:{0:!0,2:!0,drawn:2},Z:{}},paramIsY:{M:{1:!0,drawn:1},L:{1:!0,drawn:1},H:{},V:{0:!0,drawn:0},Q:{1:!0,3:!0,drawn:3},C:{1:!0,3:!0,5:!0,drawn:5},T:{1:!0,drawn:1},S:{1:!0,3:!0,drawn:5},Z:{}},numParams:{M:2,L:2,H:1,V:1,Q:4,C:6,T:2,S:4,Z:0}}},{}],659:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plots/cartesian/axes\\\"),a=t(\\\"../../plots/array_container_defaults\\\"),o=t(\\\"./attributes\\\"),s=t(\\\"./helpers\\\");function l(t,e,r){function a(r,i){return n.coerce(t,e,o,r,i)}if(a(\\\"visible\\\")){a(\\\"layer\\\"),a(\\\"opacity\\\"),a(\\\"fillcolor\\\"),a(\\\"line.color\\\"),a(\\\"line.width\\\"),a(\\\"line.dash\\\");for(var l=a(\\\"type\\\",t.path?\\\"path\\\":\\\"rect\\\"),c=a(\\\"xsizemode\\\"),u=a(\\\"ysizemode\\\"),f=[\\\"x\\\",\\\"y\\\"],h=0;h<2;h++){var p,d,g,v=f[h],m=v+\\\"anchor\\\",y=\\\"x\\\"===v?c:u,x={_fullLayout:r},b=i.coerceRef(t,e,x,v,\\\"\\\",\\\"paper\\\");if(\\\"paper\\\"!==b?((p=i.getFromId(x,b))._shapeIndices.push(e._index),g=s.rangeToShapePosition(p),d=s.shapePositionToRange(p)):d=g=n.identity,\\\"path\\\"!==l){var _=v+\\\"0\\\",w=v+\\\"1\\\",k=t[_],T=t[w];t[_]=d(t[_],!0),t[w]=d(t[w],!0),\\\"pixel\\\"===y?(a(_,0),a(w,10)):(i.coercePosition(e,x,a,b,_,.25),i.coercePosition(e,x,a,b,w,.75)),e[_]=g(e[_]),e[w]=g(e[w]),t[_]=k,t[w]=T}if(\\\"pixel\\\"===y){var A=t[m];t[m]=d(t[m],!0),i.coercePosition(e,x,a,b,m,.25),e[m]=g(e[m]),t[m]=A}}\\\"path\\\"===l?a(\\\"path\\\"):n.noneOrAll(t,e,[\\\"x0\\\",\\\"x1\\\",\\\"y0\\\",\\\"y1\\\"])}}e.exports=function(t,e){a(t,e,{name:\\\"shapes\\\",handleItemDefaults:l})}},{\\\"../../lib\\\":703,\\\"../../plots/array_container_defaults\\\":747,\\\"../../plots/cartesian/axes\\\":751,\\\"./attributes\\\":656,\\\"./helpers\\\":661}],660:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../plots/cartesian/axes\\\"),o=t(\\\"../color\\\"),s=t(\\\"../drawing\\\"),l=t(\\\"../../plot_api/plot_template\\\").arrayEditor,c=t(\\\"../dragelement\\\"),u=t(\\\"../../lib/setcursor\\\"),f=t(\\\"./constants\\\"),h=t(\\\"./helpers\\\");function p(t,e){t._fullLayout._paperdiv.selectAll('.shapelayer [data-index=\\\"'+e+'\\\"]').remove();var r=t._fullLayout.shapes[e]||{};if(r._input&&!1!==r.visible)if(\\\"below\\\"!==r.layer)m(t._fullLayout._shapeUpperLayer);else if(\\\"paper\\\"===r.xref||\\\"paper\\\"===r.yref)m(t._fullLayout._shapeLowerLayer);else{var p=t._fullLayout._plots[r.xref+r.yref];if(p)m((p.mainplotinfo||p).shapelayer);else m(t._fullLayout._shapeLowerLayer)}function m(p){var m={\\\"data-index\\\":e,\\\"fill-rule\\\":\\\"evenodd\\\",d:g(t,r)},y=r.line.width?r.line.color:\\\"rgba(0,0,0,0)\\\",x=p.append(\\\"path\\\").attr(m).style(\\\"opacity\\\",r.opacity).call(o.stroke,y).call(o.fill,r.fillcolor).call(s.dashLine,r.line.dash,r.line.width);d(x,t,r),t._context.edits.shapePosition&&function(t,e,r,o,p){var m,y,x,b,_,w,k,T,A,M,S,E,C,L,z,O,I=10,D=10,P=\\\"pixel\\\"===r.xsizemode,R=\\\"pixel\\\"===r.ysizemode,F=\\\"line\\\"===r.type,B=\\\"path\\\"===r.type,N=l(t.layout,\\\"shapes\\\",r),j=N.modifyItem,V=a.getFromId(t,r.xref),U=a.getFromId(t,r.yref),H=h.getDataToPixel(t,V),q=h.getDataToPixel(t,U,!0),G=h.getPixelToData(t,V),Y=h.getPixelToData(t,U,!0),W=F?function(){var t=Math.max(r.line.width,10),n=p.append(\\\"g\\\").attr(\\\"data-index\\\",o);n.append(\\\"path\\\").attr(\\\"d\\\",e.attr(\\\"d\\\")).style({cursor:\\\"move\\\",\\\"stroke-width\\\":t,\\\"stroke-opacity\\\":\\\"0\\\"});var i={\\\"fill-opacity\\\":\\\"0\\\"},a=t/2>10?t/2:10;return n.append(\\\"circle\\\").attr({\\\"data-line-point\\\":\\\"start-point\\\",cx:P?H(r.xanchor)+r.x0:H(r.x0),cy:R?q(r.yanchor)-r.y0:q(r.y0),r:a}).style(i).classed(\\\"cursor-grab\\\",!0),n.append(\\\"circle\\\").attr({\\\"data-line-point\\\":\\\"end-point\\\",cx:P?H(r.xanchor)+r.x1:H(r.x1),cy:R?q(r.yanchor)-r.y1:q(r.y1),r:a}).style(i).classed(\\\"cursor-grab\\\",!0),n}():e,X={element:W.node(),gd:t,prepFn:function(n){P&&(_=H(r.xanchor));R&&(w=q(r.yanchor));\\\"path\\\"===r.type?z=r.path:(m=P?r.x0:H(r.x0),y=R?r.y0:q(r.y0),x=P?r.x1:H(r.x1),b=R?r.y1:q(r.y1));m<x?(A=m,C=\\\"x0\\\",M=x,L=\\\"x1\\\"):(A=x,C=\\\"x1\\\",M=m,L=\\\"x0\\\");!R&&y<b||R&&y>b?(k=y,S=\\\"y0\\\",T=b,E=\\\"y1\\\"):(k=b,S=\\\"y1\\\",T=y,E=\\\"y0\\\");Z(n),K(p,r),function(t,e,r){var n=e.xref,i=e.yref,o=a.getFromId(r,n),l=a.getFromId(r,i),c=\\\"\\\";\\\"paper\\\"===n||o.autorange||(c+=n);\\\"paper\\\"===i||l.autorange||(c+=i);s.setClipUrl(t,c?\\\"clip\\\"+r._fullLayout._uid+c:null,r)}(e,r,t),X.moveFn=\\\"move\\\"===O?$:J},doneFn:function(){u(e),Q(p),d(e,t,r),n.call(\\\"_guiRelayout\\\",t,N.getUpdateObj())},clickFn:function(){Q(p)}};function Z(t){if(F)O=\\\"path\\\"===t.target.tagName?\\\"move\\\":\\\"start-point\\\"===t.target.attributes[\\\"data-line-point\\\"].value?\\\"resize-over-start-point\\\":\\\"resize-over-end-point\\\";else{var r=X.element.getBoundingClientRect(),n=r.right-r.left,i=r.bottom-r.top,a=t.clientX-r.left,o=t.clientY-r.top,s=!B&&n>I&&i>D&&!t.shiftKey?c.getCursor(a/n,1-o/i):\\\"move\\\";u(e,s),O=s.split(\\\"-\\\")[0]}}function $(n,i){if(\\\"path\\\"===r.type){var a=function(t){return t},o=a,s=a;P?j(\\\"xanchor\\\",r.xanchor=G(_+n)):(o=function(t){return G(H(t)+n)},V&&\\\"date\\\"===V.type&&(o=h.encodeDate(o))),R?j(\\\"yanchor\\\",r.yanchor=Y(w+i)):(s=function(t){return Y(q(t)+i)},U&&\\\"date\\\"===U.type&&(s=h.encodeDate(s))),j(\\\"path\\\",r.path=v(z,o,s))}else P?j(\\\"xanchor\\\",r.xanchor=G(_+n)):(j(\\\"x0\\\",r.x0=G(m+n)),j(\\\"x1\\\",r.x1=G(x+n))),R?j(\\\"yanchor\\\",r.yanchor=Y(w+i)):(j(\\\"y0\\\",r.y0=Y(y+i)),j(\\\"y1\\\",r.y1=Y(b+i)));e.attr(\\\"d\\\",g(t,r)),K(p,r)}function J(n,i){if(B){var a=function(t){return t},o=a,s=a;P?j(\\\"xanchor\\\",r.xanchor=G(_+n)):(o=function(t){return G(H(t)+n)},V&&\\\"date\\\"===V.type&&(o=h.encodeDate(o))),R?j(\\\"yanchor\\\",r.yanchor=Y(w+i)):(s=function(t){return Y(q(t)+i)},U&&\\\"date\\\"===U.type&&(s=h.encodeDate(s))),j(\\\"path\\\",r.path=v(z,o,s))}else if(F){if(\\\"resize-over-start-point\\\"===O){var l=m+n,c=R?y-i:y+i;j(\\\"x0\\\",r.x0=P?l:G(l)),j(\\\"y0\\\",r.y0=R?c:Y(c))}else if(\\\"resize-over-end-point\\\"===O){var u=x+n,f=R?b-i:b+i;j(\\\"x1\\\",r.x1=P?u:G(u)),j(\\\"y1\\\",r.y1=R?f:Y(f))}}else{var d=~O.indexOf(\\\"n\\\")?k+i:k,N=~O.indexOf(\\\"s\\\")?T+i:T,W=~O.indexOf(\\\"w\\\")?A+n:A,X=~O.indexOf(\\\"e\\\")?M+n:M;~O.indexOf(\\\"n\\\")&&R&&(d=k-i),~O.indexOf(\\\"s\\\")&&R&&(N=T-i),(!R&&N-d>D||R&&d-N>D)&&(j(S,r[S]=R?d:Y(d)),j(E,r[E]=R?N:Y(N))),X-W>I&&(j(C,r[C]=P?W:G(W)),j(L,r[L]=P?X:G(X)))}e.attr(\\\"d\\\",g(t,r)),K(p,r)}function K(t,e){(P||R)&&function(){var r=\\\"path\\\"!==e.type,n=t.selectAll(\\\".visual-cue\\\").data([0]);n.enter().append(\\\"path\\\").attr({fill:\\\"#fff\\\",\\\"fill-rule\\\":\\\"evenodd\\\",stroke:\\\"#000\\\",\\\"stroke-width\\\":1}).classed(\\\"visual-cue\\\",!0);var a=H(P?e.xanchor:i.midRange(r?[e.x0,e.x1]:h.extractPathCoords(e.path,f.paramIsX))),o=q(R?e.yanchor:i.midRange(r?[e.y0,e.y1]:h.extractPathCoords(e.path,f.paramIsY)));if(a=h.roundPositionForSharpStrokeRendering(a,1),o=h.roundPositionForSharpStrokeRendering(o,1),P&&R){var s=\\\"M\\\"+(a-1-1)+\\\",\\\"+(o-1-1)+\\\"h-8v2h8 v8h2v-8 h8v-2h-8 v-8h-2 Z\\\";n.attr(\\\"d\\\",s)}else if(P){var l=\\\"M\\\"+(a-1-1)+\\\",\\\"+(o-9-1)+\\\"v18 h2 v-18 Z\\\";n.attr(\\\"d\\\",l)}else{var c=\\\"M\\\"+(a-9-1)+\\\",\\\"+(o-1-1)+\\\"h18 v2 h-18 Z\\\";n.attr(\\\"d\\\",c)}}()}function Q(t){t.selectAll(\\\".visual-cue\\\").remove()}c.init(X),W.node().onmousemove=Z}(t,x,r,e,p)}}function d(t,e,r){var n=(r.xref+r.yref).replace(/paper/g,\\\"\\\");s.setClipUrl(t,n?\\\"clip\\\"+e._fullLayout._uid+n:null,e)}function g(t,e){var r,n,o,s,l,c,u,p,d=e.type,g=a.getFromId(t,e.xref),v=a.getFromId(t,e.yref),m=t._fullLayout._size;if(g?(r=h.shapePositionToRange(g),n=function(t){return g._offset+g.r2p(r(t,!0))}):n=function(t){return m.l+m.w*t},v?(o=h.shapePositionToRange(v),s=function(t){return v._offset+v.r2p(o(t,!0))}):s=function(t){return m.t+m.h*(1-t)},\\\"path\\\"===d)return g&&\\\"date\\\"===g.type&&(n=h.decodeDate(n)),v&&\\\"date\\\"===v.type&&(s=h.decodeDate(s)),function(t,e,r){var n=t.path,a=t.xsizemode,o=t.ysizemode,s=t.xanchor,l=t.yanchor;return n.replace(f.segmentRE,function(t){var n=0,c=t.charAt(0),u=f.paramIsX[c],h=f.paramIsY[c],p=f.numParams[c],d=t.substr(1).replace(f.paramRE,function(t){return u[n]?t=\\\"pixel\\\"===a?e(s)+Number(t):e(t):h[n]&&(t=\\\"pixel\\\"===o?r(l)-Number(t):r(t)),++n>p&&(t=\\\"X\\\"),t});return n>p&&(d=d.replace(/[\\\\s,]*X.*/,\\\"\\\"),i.log(\\\"Ignoring extra params in segment \\\"+t)),c+d})}(e,n,s);if(\\\"pixel\\\"===e.xsizemode){var y=n(e.xanchor);l=y+e.x0,c=y+e.x1}else l=n(e.x0),c=n(e.x1);if(\\\"pixel\\\"===e.ysizemode){var x=s(e.yanchor);u=x-e.y0,p=x-e.y1}else u=s(e.y0),p=s(e.y1);if(\\\"line\\\"===d)return\\\"M\\\"+l+\\\",\\\"+u+\\\"L\\\"+c+\\\",\\\"+p;if(\\\"rect\\\"===d)return\\\"M\\\"+l+\\\",\\\"+u+\\\"H\\\"+c+\\\"V\\\"+p+\\\"H\\\"+l+\\\"Z\\\";var b=(l+c)/2,_=(u+p)/2,w=Math.abs(b-l),k=Math.abs(_-u),T=\\\"A\\\"+w+\\\",\\\"+k,A=b+w+\\\",\\\"+_;return\\\"M\\\"+A+T+\\\" 0 1,1 \\\"+(b+\\\",\\\"+(_-k))+T+\\\" 0 0,1 \\\"+A+\\\"Z\\\"}function v(t,e,r){return t.replace(f.segmentRE,function(t){var n=0,i=t.charAt(0),a=f.paramIsX[i],o=f.paramIsY[i],s=f.numParams[i];return i+t.substr(1).replace(f.paramRE,function(t){return n>=s?t:(a[n]?t=e(t):o[n]&&(t=r(t)),n++,t)})})}e.exports={draw:function(t){var e=t._fullLayout;for(var r in e._shapeUpperLayer.selectAll(\\\"path\\\").remove(),e._shapeLowerLayer.selectAll(\\\"path\\\").remove(),e._plots){var n=e._plots[r].shapelayer;n&&n.selectAll(\\\"path\\\").remove()}for(var i=0;i<e.shapes.length;i++)e.shapes[i].visible&&p(t,i)},drawOne:p}},{\\\"../../lib\\\":703,\\\"../../lib/setcursor\\\":723,\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/cartesian/axes\\\":751,\\\"../../registry\\\":831,\\\"../color\\\":580,\\\"../dragelement\\\":598,\\\"../drawing\\\":601,\\\"./constants\\\":658,\\\"./helpers\\\":661}],661:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./constants\\\"),i=t(\\\"../../lib\\\");r.rangeToShapePosition=function(t){return\\\"log\\\"===t.type?t.r2d:function(t){return t}},r.shapePositionToRange=function(t){return\\\"log\\\"===t.type?t.d2r:function(t){return t}},r.decodeDate=function(t){return function(e){return e.replace&&(e=e.replace(\\\"_\\\",\\\" \\\")),t(e)}},r.encodeDate=function(t){return function(e){return t(e).replace(\\\" \\\",\\\"_\\\")}},r.extractPathCoords=function(t,e){var r=[];return t.match(n.segmentRE).forEach(function(t){var a=e[t.charAt(0)].drawn;if(void 0!==a){var o=t.substr(1).match(n.paramRE);!o||o.length<a||r.push(i.cleanNumber(o[a]))}}),r},r.getDataToPixel=function(t,e,n){var i,a=t._fullLayout._size;if(e){var o=r.shapePositionToRange(e);i=function(t){return e._offset+e.r2p(o(t,!0))},\\\"date\\\"===e.type&&(i=r.decodeDate(i))}else i=n?function(t){return a.t+a.h*(1-t)}:function(t){return a.l+a.w*t};return i},r.getPixelToData=function(t,e,n){var i,a=t._fullLayout._size;if(e){var o=r.rangeToShapePosition(e);i=function(t){return o(e.p2r(t-e._offset))}}else i=n?function(t){return 1-(t-a.t)/a.h}:function(t){return(t-a.l)/a.w};return i},r.roundPositionForSharpStrokeRendering=function(t,e){var r=1===Math.round(e%2),n=Math.round(t);return r?n+.5:n}},{\\\"../../lib\\\":703,\\\"./constants\\\":658}],662:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./draw\\\");e.exports={moduleType:\\\"component\\\",name:\\\"shapes\\\",layoutAttributes:t(\\\"./attributes\\\"),supplyLayoutDefaults:t(\\\"./defaults\\\"),includeBasePlot:t(\\\"../../plots/cartesian/include_components\\\")(\\\"shapes\\\"),calcAutorange:t(\\\"./calc_autorange\\\"),draw:n.draw,drawOne:n.drawOne}},{\\\"../../plots/cartesian/include_components\\\":761,\\\"./attributes\\\":656,\\\"./calc_autorange\\\":657,\\\"./defaults\\\":659,\\\"./draw\\\":660}],663:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/font_attributes\\\"),i=t(\\\"../../plots/pad_attributes\\\"),a=t(\\\"../../lib/extend\\\").extendDeepAll,o=t(\\\"../../plot_api/edit_types\\\").overrideAll,s=t(\\\"../../plots/animation_attributes\\\"),l=t(\\\"../../plot_api/plot_template\\\").templatedArray,c=t(\\\"./constants\\\"),u=l(\\\"step\\\",{visible:{valType:\\\"boolean\\\",dflt:!0},method:{valType:\\\"enumerated\\\",values:[\\\"restyle\\\",\\\"relayout\\\",\\\"animate\\\",\\\"update\\\",\\\"skip\\\"],dflt:\\\"restyle\\\"},args:{valType:\\\"info_array\\\",freeLength:!0,items:[{valType:\\\"any\\\"},{valType:\\\"any\\\"},{valType:\\\"any\\\"}]},label:{valType:\\\"string\\\"},value:{valType:\\\"string\\\"},execute:{valType:\\\"boolean\\\",dflt:!0}});e.exports=o(l(\\\"slider\\\",{visible:{valType:\\\"boolean\\\",dflt:!0},active:{valType:\\\"number\\\",min:0,dflt:0},steps:u,lenmode:{valType:\\\"enumerated\\\",values:[\\\"fraction\\\",\\\"pixels\\\"],dflt:\\\"fraction\\\"},len:{valType:\\\"number\\\",min:0,dflt:1},x:{valType:\\\"number\\\",min:-2,max:3,dflt:0},pad:a(i({editType:\\\"arraydraw\\\"}),{},{t:{dflt:20}}),xanchor:{valType:\\\"enumerated\\\",values:[\\\"auto\\\",\\\"left\\\",\\\"center\\\",\\\"right\\\"],dflt:\\\"left\\\"},y:{valType:\\\"number\\\",min:-2,max:3,dflt:0},yanchor:{valType:\\\"enumerated\\\",values:[\\\"auto\\\",\\\"top\\\",\\\"middle\\\",\\\"bottom\\\"],dflt:\\\"top\\\"},transition:{duration:{valType:\\\"number\\\",min:0,dflt:150},easing:{valType:\\\"enumerated\\\",values:s.transition.easing.values,dflt:\\\"cubic-in-out\\\"}},currentvalue:{visible:{valType:\\\"boolean\\\",dflt:!0},xanchor:{valType:\\\"enumerated\\\",values:[\\\"left\\\",\\\"center\\\",\\\"right\\\"],dflt:\\\"left\\\"},offset:{valType:\\\"number\\\",dflt:10},prefix:{valType:\\\"string\\\"},suffix:{valType:\\\"string\\\"},font:n({})},font:n({}),activebgcolor:{valType:\\\"color\\\",dflt:c.gripBgActiveColor},bgcolor:{valType:\\\"color\\\",dflt:c.railBgColor},bordercolor:{valType:\\\"color\\\",dflt:c.railBorderColor},borderwidth:{valType:\\\"number\\\",min:0,dflt:c.railBorderWidth},ticklen:{valType:\\\"number\\\",min:0,dflt:c.tickLength},tickcolor:{valType:\\\"color\\\",dflt:c.tickColor},tickwidth:{valType:\\\"number\\\",min:0,dflt:1},minorticklen:{valType:\\\"number\\\",min:0,dflt:c.minorTickLength}}),\\\"arraydraw\\\",\\\"from-root\\\")},{\\\"../../lib/extend\\\":693,\\\"../../plot_api/edit_types\\\":734,\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/animation_attributes\\\":746,\\\"../../plots/font_attributes\\\":777,\\\"../../plots/pad_attributes\\\":811,\\\"./constants\\\":664}],664:[function(t,e,r){\\\"use strict\\\";e.exports={name:\\\"sliders\\\",containerClassName:\\\"slider-container\\\",groupClassName:\\\"slider-group\\\",inputAreaClass:\\\"slider-input-area\\\",railRectClass:\\\"slider-rail-rect\\\",railTouchRectClass:\\\"slider-rail-touch-rect\\\",gripRectClass:\\\"slider-grip-rect\\\",tickRectClass:\\\"slider-tick-rect\\\",inputProxyClass:\\\"slider-input-proxy\\\",labelsClass:\\\"slider-labels\\\",labelGroupClass:\\\"slider-label-group\\\",labelClass:\\\"slider-label\\\",currentValueClass:\\\"slider-current-value\\\",railHeight:5,menuIndexAttrName:\\\"slider-active-index\\\",autoMarginIdRoot:\\\"slider-\\\",minWidth:30,minHeight:30,textPadX:40,arrowOffsetX:4,railRadius:2,railWidth:5,railBorder:4,railBorderWidth:1,railBorderColor:\\\"#bec8d9\\\",railBgColor:\\\"#f8fafc\\\",railInset:8,stepInset:10,gripRadius:10,gripWidth:20,gripHeight:20,gripBorder:20,gripBorderWidth:1,gripBorderColor:\\\"#bec8d9\\\",gripBgColor:\\\"#f6f8fa\\\",gripBgActiveColor:\\\"#dbdde0\\\",labelPadding:8,labelOffset:0,tickWidth:1,tickColor:\\\"#333\\\",tickOffset:25,tickLength:7,minorTickOffset:25,minorTickColor:\\\"#333\\\",minorTickLength:4,currentValuePadding:8,currentValueInset:0}},{}],665:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plots/array_container_defaults\\\"),a=t(\\\"./attributes\\\"),o=t(\\\"./constants\\\").name,s=a.steps;function l(t,e,r){function o(r,i){return n.coerce(t,e,a,r,i)}for(var s=i(t,e,{name:\\\"steps\\\",handleItemDefaults:c}),l=0,u=0;u<s.length;u++)s[u].visible&&l++;if(l<2?e.visible=!1:o(\\\"visible\\\")){e._stepCount=l;var f=e._visibleSteps=n.filterVisible(s);(s[o(\\\"active\\\")]||{}).visible||(e.active=f[0]._index),o(\\\"x\\\"),o(\\\"y\\\"),n.noneOrAll(t,e,[\\\"x\\\",\\\"y\\\"]),o(\\\"xanchor\\\"),o(\\\"yanchor\\\"),o(\\\"len\\\"),o(\\\"lenmode\\\"),o(\\\"pad.t\\\"),o(\\\"pad.r\\\"),o(\\\"pad.b\\\"),o(\\\"pad.l\\\"),n.coerceFont(o,\\\"font\\\",r.font),o(\\\"currentvalue.visible\\\")&&(o(\\\"currentvalue.xanchor\\\"),o(\\\"currentvalue.prefix\\\"),o(\\\"currentvalue.suffix\\\"),o(\\\"currentvalue.offset\\\"),n.coerceFont(o,\\\"currentvalue.font\\\",e.font)),o(\\\"transition.duration\\\"),o(\\\"transition.easing\\\"),o(\\\"bgcolor\\\"),o(\\\"activebgcolor\\\"),o(\\\"bordercolor\\\"),o(\\\"borderwidth\\\"),o(\\\"ticklen\\\"),o(\\\"tickwidth\\\"),o(\\\"tickcolor\\\"),o(\\\"minorticklen\\\")}}function c(t,e){function r(r,i){return n.coerce(t,e,s,r,i)}if(\\\"skip\\\"===t.method||Array.isArray(t.args)?r(\\\"visible\\\"):e.visible=!1){r(\\\"method\\\"),r(\\\"args\\\");var i=r(\\\"label\\\",\\\"step-\\\"+e._index);r(\\\"value\\\",i),r(\\\"execute\\\")}}e.exports=function(t,e){i(t,e,{name:o,handleItemDefaults:l})}},{\\\"../../lib\\\":703,\\\"../../plots/array_container_defaults\\\":747,\\\"./attributes\\\":663,\\\"./constants\\\":664}],666:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../plots/plots\\\"),a=t(\\\"../color\\\"),o=t(\\\"../drawing\\\"),s=t(\\\"../../lib\\\"),l=t(\\\"../../lib/svg_text_utils\\\"),c=t(\\\"../../plot_api/plot_template\\\").arrayEditor,u=t(\\\"./constants\\\"),f=t(\\\"../../constants/alignment\\\"),h=f.LINE_SPACING,p=f.FROM_TL,d=f.FROM_BR;function g(t){return u.autoMarginIdRoot+t._index}function v(t){return t._index}function m(t,e){var r=o.tester.selectAll(\\\"g.\\\"+u.labelGroupClass).data(e._visibleSteps);r.enter().append(\\\"g\\\").classed(u.labelGroupClass,!0);var a=0,c=0;r.each(function(t){var r=b(n.select(this),{step:t},e).node();if(r){var i=o.bBox(r);c=Math.max(c,i.height),a=Math.max(a,i.width)}}),r.remove();var f=e._dims={};f.inputAreaWidth=Math.max(u.railWidth,u.gripHeight);var h=t._fullLayout._size;f.lx=h.l+h.w*e.x,f.ly=h.t+h.h*(1-e.y),\\\"fraction\\\"===e.lenmode?f.outerLength=Math.round(h.w*e.len):f.outerLength=e.len,f.inputAreaStart=0,f.inputAreaLength=Math.round(f.outerLength-e.pad.l-e.pad.r);var v=(f.inputAreaLength-2*u.stepInset)/(e._stepCount-1),m=a+u.labelPadding;if(f.labelStride=Math.max(1,Math.ceil(m/v)),f.labelHeight=c,f.currentValueMaxWidth=0,f.currentValueHeight=0,f.currentValueTotalHeight=0,f.currentValueMaxLines=1,e.currentvalue.visible){var x=o.tester.append(\\\"g\\\");r.each(function(t){var r=y(x,e,t.label),n=r.node()&&o.bBox(r.node())||{width:0,height:0},i=l.lineCount(r);f.currentValueMaxWidth=Math.max(f.currentValueMaxWidth,Math.ceil(n.width)),f.currentValueHeight=Math.max(f.currentValueHeight,Math.ceil(n.height)),f.currentValueMaxLines=Math.max(f.currentValueMaxLines,i)}),f.currentValueTotalHeight=f.currentValueHeight+e.currentvalue.offset,x.remove()}f.height=f.currentValueTotalHeight+u.tickOffset+e.ticklen+u.labelOffset+f.labelHeight+e.pad.t+e.pad.b;var _=\\\"left\\\";s.isRightAnchor(e)&&(f.lx-=f.outerLength,_=\\\"right\\\"),s.isCenterAnchor(e)&&(f.lx-=f.outerLength/2,_=\\\"center\\\");var w=\\\"top\\\";s.isBottomAnchor(e)&&(f.ly-=f.height,w=\\\"bottom\\\"),s.isMiddleAnchor(e)&&(f.ly-=f.height/2,w=\\\"middle\\\"),f.outerLength=Math.ceil(f.outerLength),f.height=Math.ceil(f.height),f.lx=Math.round(f.lx),f.ly=Math.round(f.ly);var k={y:e.y,b:f.height*d[w],t:f.height*p[w]};\\\"fraction\\\"===e.lenmode?(k.l=0,k.xl=e.x-e.len*p[_],k.r=0,k.xr=e.x+e.len*d[_]):(k.x=e.x,k.l=f.outerLength*p[_],k.r=f.outerLength*d[_]),i.autoMargin(t,g(e),k)}function y(t,e,r){if(e.currentvalue.visible){var n,i,a=e._dims;switch(e.currentvalue.xanchor){case\\\"right\\\":n=a.inputAreaLength-u.currentValueInset-a.currentValueMaxWidth,i=\\\"left\\\";break;case\\\"center\\\":n=.5*a.inputAreaLength,i=\\\"middle\\\";break;default:n=u.currentValueInset,i=\\\"left\\\"}var c=s.ensureSingle(t,\\\"text\\\",u.labelClass,function(t){t.classed(\\\"user-select-none\\\",!0).attr({\\\"text-anchor\\\":i,\\\"data-notex\\\":1})}),f=e.currentvalue.prefix?e.currentvalue.prefix:\\\"\\\";if(\\\"string\\\"==typeof r)f+=r;else{var p=e.steps[e.active].label,d=e._gd._fullLayout._meta;d&&(p=s.templateString(p,d)),f+=p}e.currentvalue.suffix&&(f+=e.currentvalue.suffix),c.call(o.font,e.currentvalue.font).text(f).call(l.convertToTspans,e._gd);var g=l.lineCount(c),v=(a.currentValueMaxLines+1-g)*e.currentvalue.font.size*h;return l.positionText(c,n,v),c}}function x(t,e,r){s.ensureSingle(t,\\\"rect\\\",u.gripRectClass,function(n){n.call(T,e,t,r).style(\\\"pointer-events\\\",\\\"all\\\")}).attr({width:u.gripWidth,height:u.gripHeight,rx:u.gripRadius,ry:u.gripRadius}).call(a.stroke,r.bordercolor).call(a.fill,r.bgcolor).style(\\\"stroke-width\\\",r.borderwidth+\\\"px\\\")}function b(t,e,r){var n=s.ensureSingle(t,\\\"text\\\",u.labelClass,function(t){t.classed(\\\"user-select-none\\\",!0).attr({\\\"text-anchor\\\":\\\"middle\\\",\\\"data-notex\\\":1})}),i=e.step.label,a=r._gd._fullLayout._meta;return a&&(i=s.templateString(i,a)),n.call(o.font,r.font).text(i).call(l.convertToTspans,r._gd),n}function _(t,e){var r=s.ensureSingle(t,\\\"g\\\",u.labelsClass),i=e._dims,a=r.selectAll(\\\"g.\\\"+u.labelGroupClass).data(i.labelSteps);a.enter().append(\\\"g\\\").classed(u.labelGroupClass,!0),a.exit().remove(),a.each(function(t){var r=n.select(this);r.call(b,t,e),o.setTranslate(r,S(e,t.fraction),u.tickOffset+e.ticklen+e.font.size*h+u.labelOffset+i.currentValueTotalHeight)})}function w(t,e,r,n,i){var a=Math.round(n*(r._stepCount-1)),o=r._visibleSteps[a]._index;o!==r.active&&k(t,e,r,o,!0,i)}function k(t,e,r,n,a,o){var s=r.active;r.active=n,c(t.layout,u.name,r).applyUpdate(\\\"active\\\",n);var l=r.steps[r.active];e.call(M,r,o),e.call(y,r),t.emit(\\\"plotly_sliderchange\\\",{slider:r,step:r.steps[r.active],interaction:a,previousActive:s}),l&&l.method&&a&&(e._nextMethod?(e._nextMethod.step=l,e._nextMethod.doCallback=a,e._nextMethod.doTransition=o):(e._nextMethod={step:l,doCallback:a,doTransition:o},e._nextMethodRaf=window.requestAnimationFrame(function(){var r=e._nextMethod.step;r.method&&(r.execute&&i.executeAPICommand(t,r.method,r.args),e._nextMethod=null,e._nextMethodRaf=null)})))}function T(t,e,r){var i=r.node(),o=n.select(e);function s(){return r.data()[0]}t.on(\\\"mousedown\\\",function(){var t=s();e.emit(\\\"plotly_sliderstart\\\",{slider:t});var l=r.select(\\\".\\\"+u.gripRectClass);n.event.stopPropagation(),n.event.preventDefault(),l.call(a.fill,t.activebgcolor);var c=E(t,n.mouse(i)[0]);w(e,r,t,c,!0),t._dragging=!0,o.on(\\\"mousemove\\\",function(){var t=s(),a=E(t,n.mouse(i)[0]);w(e,r,t,a,!1)}),o.on(\\\"mouseup\\\",function(){var t=s();t._dragging=!1,l.call(a.fill,t.bgcolor),o.on(\\\"mouseup\\\",null),o.on(\\\"mousemove\\\",null),e.emit(\\\"plotly_sliderend\\\",{slider:t,step:t.steps[t.active]})})})}function A(t,e){var r=t.selectAll(\\\"rect.\\\"+u.tickRectClass).data(e._visibleSteps),i=e._dims;r.enter().append(\\\"rect\\\").classed(u.tickRectClass,!0),r.exit().remove(),r.attr({width:e.tickwidth+\\\"px\\\",\\\"shape-rendering\\\":\\\"crispEdges\\\"}),r.each(function(t,r){var s=r%i.labelStride==0,l=n.select(this);l.attr({height:s?e.ticklen:e.minorticklen}).call(a.fill,e.tickcolor),o.setTranslate(l,S(e,r/(e._stepCount-1))-.5*e.tickwidth,(s?u.tickOffset:u.minorTickOffset)+i.currentValueTotalHeight)})}function M(t,e,r){for(var n=t.select(\\\"rect.\\\"+u.gripRectClass),i=0,a=0;a<e._stepCount;a++)if(e._visibleSteps[a]._index===e.active){i=a;break}var o=S(e,i/(e._stepCount-1));if(!e._invokingCommand){var s=n;r&&e.transition.duration>0&&(s=s.transition().duration(e.transition.duration).ease(e.transition.easing)),s.attr(\\\"transform\\\",\\\"translate(\\\"+(o-.5*u.gripWidth)+\\\",\\\"+e._dims.currentValueTotalHeight+\\\")\\\")}}function S(t,e){var r=t._dims;return r.inputAreaStart+u.stepInset+(r.inputAreaLength-2*u.stepInset)*Math.min(1,Math.max(0,e))}function E(t,e){var r=t._dims;return Math.min(1,Math.max(0,(e-u.stepInset-r.inputAreaStart)/(r.inputAreaLength-2*u.stepInset-2*r.inputAreaStart)))}function C(t,e,r){var n=r._dims,i=s.ensureSingle(t,\\\"rect\\\",u.railTouchRectClass,function(n){n.call(T,e,t,r).style(\\\"pointer-events\\\",\\\"all\\\")});i.attr({width:n.inputAreaLength,height:Math.max(n.inputAreaWidth,u.tickOffset+r.ticklen+n.labelHeight)}).call(a.fill,r.bgcolor).attr(\\\"opacity\\\",0),o.setTranslate(i,0,n.currentValueTotalHeight)}function L(t,e){var r=e._dims,n=r.inputAreaLength-2*u.railInset,i=s.ensureSingle(t,\\\"rect\\\",u.railRectClass);i.attr({width:n,height:u.railWidth,rx:u.railRadius,ry:u.railRadius,\\\"shape-rendering\\\":\\\"crispEdges\\\"}).call(a.stroke,e.bordercolor).call(a.fill,e.bgcolor).style(\\\"stroke-width\\\",e.borderwidth+\\\"px\\\"),o.setTranslate(i,u.railInset,.5*(r.inputAreaWidth-u.railWidth)+r.currentValueTotalHeight)}e.exports=function(t){var e=t._fullLayout,r=function(t,e){for(var r=t[u.name],n=[],i=0;i<r.length;i++){var a=r[i];a.visible&&(a._gd=e,n.push(a))}return n}(e,t),a=e._infolayer.selectAll(\\\"g.\\\"+u.containerClassName).data(r.length>0?[0]:[]);function s(e){e._commandObserver&&(e._commandObserver.remove(),delete e._commandObserver),i.autoMargin(t,g(e))}if(a.enter().append(\\\"g\\\").classed(u.containerClassName,!0).style(\\\"cursor\\\",\\\"ew-resize\\\"),a.exit().each(function(){n.select(this).selectAll(\\\"g.\\\"+u.groupClassName).each(s)}).remove(),0!==r.length){var l=a.selectAll(\\\"g.\\\"+u.groupClassName).data(r,v);l.enter().append(\\\"g\\\").classed(u.groupClassName,!0),l.exit().each(s).remove();for(var c=0;c<r.length;c++){var f=r[c];m(t,f)}l.each(function(e){var r=n.select(this);!function(t){var e=t._dims;e.labelSteps=[];for(var r=t._stepCount,n=0;n<r;n+=e.labelStride)e.labelSteps.push({fraction:n/(r-1),step:t._visibleSteps[n]})}(e),i.manageCommandObserver(t,e,e._visibleSteps,function(e){var n=r.data()[0];n.active!==e.index&&(n._dragging||k(t,r,n,e.index,!1,!0))}),function(t,e,r){(r.steps[r.active]||{}).visible||(r.active=r._visibleSteps[0]._index);e.call(y,r).call(L,r).call(_,r).call(A,r).call(C,t,r).call(x,t,r);var n=r._dims;o.setTranslate(e,n.lx+r.pad.l,n.ly+r.pad.t),e.call(M,r,!1),e.call(y,r)}(t,n.select(this),e)})}}},{\\\"../../constants/alignment\\\":675,\\\"../../lib\\\":703,\\\"../../lib/svg_text_utils\\\":727,\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/plots\\\":812,\\\"../color\\\":580,\\\"../drawing\\\":601,\\\"./constants\\\":664,d3:157}],667:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./constants\\\");e.exports={moduleType:\\\"component\\\",name:n.name,layoutAttributes:t(\\\"./attributes\\\"),supplyLayoutDefaults:t(\\\"./defaults\\\"),draw:t(\\\"./draw\\\")}},{\\\"./attributes\\\":663,\\\"./constants\\\":664,\\\"./defaults\\\":665,\\\"./draw\\\":666}],668:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"fast-isnumeric\\\"),a=t(\\\"../../plots/plots\\\"),o=t(\\\"../../registry\\\"),s=t(\\\"../../lib\\\"),l=t(\\\"../drawing\\\"),c=t(\\\"../color\\\"),u=t(\\\"../../lib/svg_text_utils\\\"),f=t(\\\"../../constants/interactions\\\");e.exports={draw:function(t,e,r){var p,d=r.propContainer,g=r.propName,v=r.placeholder,m=r.traceIndex,y=r.avoid||{},x=r.attributes,b=r.transform,_=r.containerGroup,w=t._fullLayout,k=1,T=!1,A=d.title,M=(A&&A.text?A.text:\\\"\\\").trim(),S=A&&A.font?A.font:{},E=S.family,C=S.size,L=S.color;\\\"title.text\\\"===g?p=\\\"titleText\\\":-1!==g.indexOf(\\\"axis\\\")?p=\\\"axisTitleText\\\":g.indexOf(!0)&&(p=\\\"colorbarTitleText\\\");var z=t._context.edits[p];\\\"\\\"===M?k=0:M.replace(h,\\\" % \\\")===v.replace(h,\\\" % \\\")&&(k=.2,T=!0,z||(M=\\\"\\\"));r._meta?M=s.templateString(M,r._meta):w._meta&&(M=s.templateString(M,w._meta));var O=M||z;_||(_=s.ensureSingle(w._infolayer,\\\"g\\\",\\\"g-\\\"+e));var I=_.selectAll(\\\"text\\\").data(O?[0]:[]);if(I.enter().append(\\\"text\\\"),I.text(M).attr(\\\"class\\\",e),I.exit().remove(),!O)return _;function D(t){s.syncOrAsync([P,R],t)}function P(e){var r;return b?(r=\\\"\\\",b.rotate&&(r+=\\\"rotate(\\\"+[b.rotate,x.x,x.y]+\\\")\\\"),b.offset&&(r+=\\\"translate(0, \\\"+b.offset+\\\")\\\")):r=null,e.attr(\\\"transform\\\",r),e.style({\\\"font-family\\\":E,\\\"font-size\\\":n.round(C,2)+\\\"px\\\",fill:c.rgb(L),opacity:k*c.opacity(L),\\\"font-weight\\\":a.fontWeight}).attr(x).call(u.convertToTspans,t),a.previousPromises(t)}function R(t){var e=n.select(t.node().parentNode);if(y&&y.selection&&y.side&&M){e.attr(\\\"transform\\\",null);var r=0,a={left:\\\"right\\\",right:\\\"left\\\",top:\\\"bottom\\\",bottom:\\\"top\\\"}[y.side],o=-1!==[\\\"left\\\",\\\"top\\\"].indexOf(y.side)?-1:1,c=i(y.pad)?y.pad:2,u=l.bBox(e.node()),f={left:0,top:0,right:w.width,bottom:w.height},h=y.maxShift||(f[y.side]-u[y.side])*(\\\"left\\\"===y.side||\\\"top\\\"===y.side?-1:1);if(h<0)r=h;else{var p=y.offsetLeft||0,d=y.offsetTop||0;u.left-=p,u.right-=p,u.top-=d,u.bottom-=d,y.selection.each(function(){var t=l.bBox(this);s.bBoxIntersect(u,t,c)&&(r=Math.max(r,o*(t[y.side]-u[a])+c))}),r=Math.min(h,r)}if(r>0||h<0){var g={left:[-r,0],right:[r,0],top:[0,-r],bottom:[0,r]}[y.side];e.attr(\\\"transform\\\",\\\"translate(\\\"+g+\\\")\\\")}}}I.call(D),z&&(M?I.on(\\\".opacity\\\",null):(k=0,T=!0,I.text(v).on(\\\"mouseover.opacity\\\",function(){n.select(this).transition().duration(f.SHOW_PLACEHOLDER).style(\\\"opacity\\\",1)}).on(\\\"mouseout.opacity\\\",function(){n.select(this).transition().duration(f.HIDE_PLACEHOLDER).style(\\\"opacity\\\",0)})),I.call(u.makeEditable,{gd:t}).on(\\\"edit\\\",function(e){void 0!==m?o.call(\\\"_guiRestyle\\\",t,g,e,m):o.call(\\\"_guiRelayout\\\",t,g,e)}).on(\\\"cancel\\\",function(){this.text(this.attr(\\\"data-unformatted\\\")).call(D)}).on(\\\"input\\\",function(t){this.text(t||\\\" \\\").call(u.positionText,x.x,x.y)}));return I.classed(\\\"js-placeholder\\\",T),_}};var h=/ [XY][0-9]* /},{\\\"../../constants/interactions\\\":679,\\\"../../lib\\\":703,\\\"../../lib/svg_text_utils\\\":727,\\\"../../plots/plots\\\":812,\\\"../../registry\\\":831,\\\"../color\\\":580,\\\"../drawing\\\":601,d3:157,\\\"fast-isnumeric\\\":224}],669:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/font_attributes\\\"),i=t(\\\"../color/attributes\\\"),a=t(\\\"../../lib/extend\\\").extendFlat,o=t(\\\"../../plot_api/edit_types\\\").overrideAll,s=t(\\\"../../plots/pad_attributes\\\"),l=t(\\\"../../plot_api/plot_template\\\").templatedArray,c=l(\\\"button\\\",{visible:{valType:\\\"boolean\\\"},method:{valType:\\\"enumerated\\\",values:[\\\"restyle\\\",\\\"relayout\\\",\\\"animate\\\",\\\"update\\\",\\\"skip\\\"],dflt:\\\"restyle\\\"},args:{valType:\\\"info_array\\\",freeLength:!0,items:[{valType:\\\"any\\\"},{valType:\\\"any\\\"},{valType:\\\"any\\\"}]},label:{valType:\\\"string\\\",dflt:\\\"\\\"},execute:{valType:\\\"boolean\\\",dflt:!0}});e.exports=o(l(\\\"updatemenu\\\",{_arrayAttrRegexps:[/^updatemenus\\\\[(0|[1-9][0-9]+)\\\\]\\\\.buttons/],visible:{valType:\\\"boolean\\\"},type:{valType:\\\"enumerated\\\",values:[\\\"dropdown\\\",\\\"buttons\\\"],dflt:\\\"dropdown\\\"},direction:{valType:\\\"enumerated\\\",values:[\\\"left\\\",\\\"right\\\",\\\"up\\\",\\\"down\\\"],dflt:\\\"down\\\"},active:{valType:\\\"integer\\\",min:-1,dflt:0},showactive:{valType:\\\"boolean\\\",dflt:!0},buttons:c,x:{valType:\\\"number\\\",min:-2,max:3,dflt:-.05},xanchor:{valType:\\\"enumerated\\\",values:[\\\"auto\\\",\\\"left\\\",\\\"center\\\",\\\"right\\\"],dflt:\\\"right\\\"},y:{valType:\\\"number\\\",min:-2,max:3,dflt:1},yanchor:{valType:\\\"enumerated\\\",values:[\\\"auto\\\",\\\"top\\\",\\\"middle\\\",\\\"bottom\\\"],dflt:\\\"top\\\"},pad:a(s({editType:\\\"arraydraw\\\"}),{}),font:n({}),bgcolor:{valType:\\\"color\\\"},bordercolor:{valType:\\\"color\\\",dflt:i.borderLine},borderwidth:{valType:\\\"number\\\",min:0,dflt:1,editType:\\\"arraydraw\\\"}}),\\\"arraydraw\\\",\\\"from-root\\\")},{\\\"../../lib/extend\\\":693,\\\"../../plot_api/edit_types\\\":734,\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/font_attributes\\\":777,\\\"../../plots/pad_attributes\\\":811,\\\"../color/attributes\\\":579}],670:[function(t,e,r){\\\"use strict\\\";e.exports={name:\\\"updatemenus\\\",containerClassName:\\\"updatemenu-container\\\",headerGroupClassName:\\\"updatemenu-header-group\\\",headerClassName:\\\"updatemenu-header\\\",headerArrowClassName:\\\"updatemenu-header-arrow\\\",dropdownButtonGroupClassName:\\\"updatemenu-dropdown-button-group\\\",dropdownButtonClassName:\\\"updatemenu-dropdown-button\\\",buttonClassName:\\\"updatemenu-button\\\",itemRectClassName:\\\"updatemenu-item-rect\\\",itemTextClassName:\\\"updatemenu-item-text\\\",menuIndexAttrName:\\\"updatemenu-active-index\\\",autoMarginIdRoot:\\\"updatemenu-\\\",blankHeaderOpts:{label:\\\"  \\\"},minWidth:30,minHeight:30,textPadX:24,arrowPadX:16,rx:2,ry:2,textOffsetX:12,textOffsetY:3,arrowOffsetX:4,gapButtonHeader:5,gapButton:2,activeColor:\\\"#F4FAFF\\\",hoverColor:\\\"#F4FAFF\\\",arrowSymbol:{left:\\\"\\\\u25c4\\\",right:\\\"\\\\u25ba\\\",up:\\\"\\\\u25b2\\\",down:\\\"\\\\u25bc\\\"}}},{}],671:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plots/array_container_defaults\\\"),a=t(\\\"./attributes\\\"),o=t(\\\"./constants\\\").name,s=a.buttons;function l(t,e,r){function o(r,i){return n.coerce(t,e,a,r,i)}o(\\\"visible\\\",i(t,e,{name:\\\"buttons\\\",handleItemDefaults:c}).length>0)&&(o(\\\"active\\\"),o(\\\"direction\\\"),o(\\\"type\\\"),o(\\\"showactive\\\"),o(\\\"x\\\"),o(\\\"y\\\"),n.noneOrAll(t,e,[\\\"x\\\",\\\"y\\\"]),o(\\\"xanchor\\\"),o(\\\"yanchor\\\"),o(\\\"pad.t\\\"),o(\\\"pad.r\\\"),o(\\\"pad.b\\\"),o(\\\"pad.l\\\"),n.coerceFont(o,\\\"font\\\",r.font),o(\\\"bgcolor\\\",r.paper_bgcolor),o(\\\"bordercolor\\\"),o(\\\"borderwidth\\\"))}function c(t,e){function r(r,i){return n.coerce(t,e,s,r,i)}r(\\\"visible\\\",\\\"skip\\\"===t.method||Array.isArray(t.args))&&(r(\\\"method\\\"),r(\\\"args\\\"),r(\\\"label\\\"),r(\\\"execute\\\"))}e.exports=function(t,e){i(t,e,{name:o,handleItemDefaults:l})}},{\\\"../../lib\\\":703,\\\"../../plots/array_container_defaults\\\":747,\\\"./attributes\\\":669,\\\"./constants\\\":670}],672:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../plots/plots\\\"),a=t(\\\"../color\\\"),o=t(\\\"../drawing\\\"),s=t(\\\"../../lib\\\"),l=t(\\\"../../lib/svg_text_utils\\\"),c=t(\\\"../../plot_api/plot_template\\\").arrayEditor,u=t(\\\"../../constants/alignment\\\").LINE_SPACING,f=t(\\\"./constants\\\"),h=t(\\\"./scrollbox\\\");function p(t){return t._index}function d(t,e){return+t.attr(f.menuIndexAttrName)===e._index}function g(t,e,r,n,i,a,o,s){e.active=o,c(t.layout,f.name,e).applyUpdate(\\\"active\\\",o),\\\"buttons\\\"===e.type?m(t,n,null,null,e):\\\"dropdown\\\"===e.type&&(i.attr(f.menuIndexAttrName,\\\"-1\\\"),v(t,n,i,a,e),s||m(t,n,i,a,e))}function v(t,e,r,n,i){var a=s.ensureSingle(e,\\\"g\\\",f.headerClassName,function(t){t.style(\\\"pointer-events\\\",\\\"all\\\")}),l=i._dims,c=i.active,u=i.buttons[c]||f.blankHeaderOpts,h={y:i.pad.t,yPad:0,x:i.pad.l,xPad:0,index:0},p={width:l.headerWidth,height:l.headerHeight};a.call(y,i,u,t).call(M,i,h,p),s.ensureSingle(e,\\\"text\\\",f.headerArrowClassName,function(t){t.classed(\\\"user-select-none\\\",!0).attr(\\\"text-anchor\\\",\\\"end\\\").call(o.font,i.font).text(f.arrowSymbol[i.direction])}).attr({x:l.headerWidth-f.arrowOffsetX+i.pad.l,y:l.headerHeight/2+f.textOffsetY+i.pad.t}),a.on(\\\"click\\\",function(){r.call(S,String(d(r,i)?-1:i._index)),m(t,e,r,n,i)}),a.on(\\\"mouseover\\\",function(){a.call(w)}),a.on(\\\"mouseout\\\",function(){a.call(k,i)}),o.setTranslate(e,l.lx,l.ly)}function m(t,e,r,a,o){r||(r=e).attr(\\\"pointer-events\\\",\\\"all\\\");var l=function(t){return-1==+t.attr(f.menuIndexAttrName)}(r)&&\\\"buttons\\\"!==o.type?[]:o.buttons,c=\\\"dropdown\\\"===o.type?f.dropdownButtonClassName:f.buttonClassName,u=r.selectAll(\\\"g.\\\"+c).data(s.filterVisible(l)),h=u.enter().append(\\\"g\\\").classed(c,!0),p=u.exit();\\\"dropdown\\\"===o.type?(h.attr(\\\"opacity\\\",\\\"0\\\").transition().attr(\\\"opacity\\\",\\\"1\\\"),p.transition().attr(\\\"opacity\\\",\\\"0\\\").remove()):p.remove();var d=0,v=0,m=o._dims,x=-1!==[\\\"up\\\",\\\"down\\\"].indexOf(o.direction);\\\"dropdown\\\"===o.type&&(x?v=m.headerHeight+f.gapButtonHeader:d=m.headerWidth+f.gapButtonHeader),\\\"dropdown\\\"===o.type&&\\\"up\\\"===o.direction&&(v=-f.gapButtonHeader+f.gapButton-m.openHeight),\\\"dropdown\\\"===o.type&&\\\"left\\\"===o.direction&&(d=-f.gapButtonHeader+f.gapButton-m.openWidth);var b={x:m.lx+d+o.pad.l,y:m.ly+v+o.pad.t,yPad:f.gapButton,xPad:f.gapButton,index:0},T={l:b.x+o.borderwidth,t:b.y+o.borderwidth};u.each(function(s,l){var c=n.select(this);c.call(y,o,s,t).call(M,o,b),c.on(\\\"click\\\",function(){n.event.defaultPrevented||(g(t,o,0,e,r,a,l),s.execute&&i.executeAPICommand(t,s.method,s.args),t.emit(\\\"plotly_buttonclicked\\\",{menu:o,button:s,active:o.active}))}),c.on(\\\"mouseover\\\",function(){c.call(w)}),c.on(\\\"mouseout\\\",function(){c.call(k,o),u.call(_,o)})}),u.call(_,o),x?(T.w=Math.max(m.openWidth,m.headerWidth),T.h=b.y-T.t):(T.w=b.x-T.l,T.h=Math.max(m.openHeight,m.headerHeight)),T.direction=o.direction,a&&(u.size()?function(t,e,r,n,i,a){var o,s,l,c=i.direction,u=\\\"up\\\"===c||\\\"down\\\"===c,h=i._dims,p=i.active;if(u)for(s=0,l=0;l<p;l++)s+=h.heights[l]+f.gapButton;else for(o=0,l=0;l<p;l++)o+=h.widths[l]+f.gapButton;n.enable(a,o,s),n.hbar&&n.hbar.attr(\\\"opacity\\\",\\\"0\\\").transition().attr(\\\"opacity\\\",\\\"1\\\");n.vbar&&n.vbar.attr(\\\"opacity\\\",\\\"0\\\").transition().attr(\\\"opacity\\\",\\\"1\\\")}(0,0,0,a,o,T):function(t){var e=!!t.hbar,r=!!t.vbar;e&&t.hbar.transition().attr(\\\"opacity\\\",\\\"0\\\").each(\\\"end\\\",function(){e=!1,r||t.disable()});r&&t.vbar.transition().attr(\\\"opacity\\\",\\\"0\\\").each(\\\"end\\\",function(){r=!1,e||t.disable()})}(a))}function y(t,e,r,n){t.call(x,e).call(b,e,r,n)}function x(t,e){s.ensureSingle(t,\\\"rect\\\",f.itemRectClassName,function(t){t.attr({rx:f.rx,ry:f.ry,\\\"shape-rendering\\\":\\\"crispEdges\\\"})}).call(a.stroke,e.bordercolor).call(a.fill,e.bgcolor).style(\\\"stroke-width\\\",e.borderwidth+\\\"px\\\")}function b(t,e,r,n){var i=s.ensureSingle(t,\\\"text\\\",f.itemTextClassName,function(t){t.classed(\\\"user-select-none\\\",!0).attr({\\\"text-anchor\\\":\\\"start\\\",\\\"data-notex\\\":1})}),a=r.label,c=n._fullLayout._meta;c&&(a=s.templateString(a,c)),i.call(o.font,e.font).text(a).call(l.convertToTspans,n)}function _(t,e){var r=e.active;t.each(function(t,i){var o=n.select(this);i===r&&e.showactive&&o.select(\\\"rect.\\\"+f.itemRectClassName).call(a.fill,f.activeColor)})}function w(t){t.select(\\\"rect.\\\"+f.itemRectClassName).call(a.fill,f.hoverColor)}function k(t,e){t.select(\\\"rect.\\\"+f.itemRectClassName).call(a.fill,e.bgcolor)}function T(t,e){var r=e._dims={width1:0,height1:0,heights:[],widths:[],totalWidth:0,totalHeight:0,openWidth:0,openHeight:0,lx:0,ly:0},a=o.tester.selectAll(\\\"g.\\\"+f.dropdownButtonClassName).data(s.filterVisible(e.buttons));a.enter().append(\\\"g\\\").classed(f.dropdownButtonClassName,!0);var c=-1!==[\\\"up\\\",\\\"down\\\"].indexOf(e.direction);a.each(function(i,a){var s=n.select(this);s.call(y,e,i,t);var h=s.select(\\\".\\\"+f.itemTextClassName),p=h.node()&&o.bBox(h.node()).width,d=Math.max(p+f.textPadX,f.minWidth),g=e.font.size*u,v=l.lineCount(h),m=Math.max(g*v,f.minHeight)+f.textOffsetY;m=Math.ceil(m),d=Math.ceil(d),r.widths[a]=d,r.heights[a]=m,r.height1=Math.max(r.height1,m),r.width1=Math.max(r.width1,d),c?(r.totalWidth=Math.max(r.totalWidth,d),r.openWidth=r.totalWidth,r.totalHeight+=m+f.gapButton,r.openHeight+=m+f.gapButton):(r.totalWidth+=d+f.gapButton,r.openWidth+=d+f.gapButton,r.totalHeight=Math.max(r.totalHeight,m),r.openHeight=r.totalHeight)}),c?r.totalHeight-=f.gapButton:r.totalWidth-=f.gapButton,r.headerWidth=r.width1+f.arrowPadX,r.headerHeight=r.height1,\\\"dropdown\\\"===e.type&&(c?(r.width1+=f.arrowPadX,r.totalHeight=r.height1):r.totalWidth=r.width1,r.totalWidth+=f.arrowPadX),a.remove();var h=r.totalWidth+e.pad.l+e.pad.r,p=r.totalHeight+e.pad.t+e.pad.b,d=t._fullLayout._size;r.lx=d.l+d.w*e.x,r.ly=d.t+d.h*(1-e.y);var g=\\\"left\\\";s.isRightAnchor(e)&&(r.lx-=h,g=\\\"right\\\"),s.isCenterAnchor(e)&&(r.lx-=h/2,g=\\\"center\\\");var v=\\\"top\\\";s.isBottomAnchor(e)&&(r.ly-=p,v=\\\"bottom\\\"),s.isMiddleAnchor(e)&&(r.ly-=p/2,v=\\\"middle\\\"),r.totalWidth=Math.ceil(r.totalWidth),r.totalHeight=Math.ceil(r.totalHeight),r.lx=Math.round(r.lx),r.ly=Math.round(r.ly),i.autoMargin(t,A(e),{x:e.x,y:e.y,l:h*({right:1,center:.5}[g]||0),r:h*({left:1,center:.5}[g]||0),b:p*({top:1,middle:.5}[v]||0),t:p*({bottom:1,middle:.5}[v]||0)})}function A(t){return f.autoMarginIdRoot+t._index}function M(t,e,r,n){n=n||{};var i=t.select(\\\".\\\"+f.itemRectClassName),a=t.select(\\\".\\\"+f.itemTextClassName),s=e.borderwidth,c=r.index,h=e._dims;o.setTranslate(t,s+r.x,s+r.y);var p=-1!==[\\\"up\\\",\\\"down\\\"].indexOf(e.direction),d=n.height||(p?h.heights[c]:h.height1);i.attr({x:0,y:0,width:n.width||(p?h.width1:h.widths[c]),height:d});var g=e.font.size*u,v=(l.lineCount(a)-1)*g/2;l.positionText(a,f.textOffsetX,d/2-v+f.textOffsetY),p?r.y+=h.heights[c]+r.yPad:r.x+=h.widths[c]+r.xPad,r.index++}function S(t,e){t.attr(f.menuIndexAttrName,e||\\\"-1\\\").selectAll(\\\"g.\\\"+f.dropdownButtonClassName).remove()}e.exports=function(t){var e=t._fullLayout,r=s.filterVisible(e[f.name]);function a(e){i.autoMargin(t,A(e))}var o=e._menulayer.selectAll(\\\"g.\\\"+f.containerClassName).data(r.length>0?[0]:[]);if(o.enter().append(\\\"g\\\").classed(f.containerClassName,!0).style(\\\"cursor\\\",\\\"pointer\\\"),o.exit().each(function(){n.select(this).selectAll(\\\"g.\\\"+f.headerGroupClassName).each(a)}).remove(),0!==r.length){var l=o.selectAll(\\\"g.\\\"+f.headerGroupClassName).data(r,p);l.enter().append(\\\"g\\\").classed(f.headerGroupClassName,!0);for(var c=s.ensureSingle(o,\\\"g\\\",f.dropdownButtonGroupClassName,function(t){t.style(\\\"pointer-events\\\",\\\"all\\\")}),u=0;u<r.length;u++){var y=r[u];T(t,y)}var x=\\\"updatemenus\\\"+e._uid,b=new h(t,c,x);l.enter().size()&&(c.node().parentNode.appendChild(c.node()),c.call(S)),l.exit().each(function(t){c.call(S),a(t)}).remove(),l.each(function(e){var r=n.select(this),a=\\\"dropdown\\\"===e.type?c:null;i.manageCommandObserver(t,e,e.buttons,function(n){g(t,e,e.buttons[n.index],r,a,b,n.index,!0)}),\\\"dropdown\\\"===e.type?(v(t,r,c,b,e),d(c,e)&&m(t,r,c,b,e)):m(t,r,null,null,e)})}}},{\\\"../../constants/alignment\\\":675,\\\"../../lib\\\":703,\\\"../../lib/svg_text_utils\\\":727,\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/plots\\\":812,\\\"../color\\\":580,\\\"../drawing\\\":601,\\\"./constants\\\":670,\\\"./scrollbox\\\":674,d3:157}],673:[function(t,e,r){arguments[4][667][0].apply(r,arguments)},{\\\"./attributes\\\":669,\\\"./constants\\\":670,\\\"./defaults\\\":671,\\\"./draw\\\":672,dup:667}],674:[function(t,e,r){\\\"use strict\\\";e.exports=s;var n=t(\\\"d3\\\"),i=t(\\\"../color\\\"),a=t(\\\"../drawing\\\"),o=t(\\\"../../lib\\\");function s(t,e,r){this.gd=t,this.container=e,this.id=r,this.position=null,this.translateX=null,this.translateY=null,this.hbar=null,this.vbar=null,this.bg=this.container.selectAll(\\\"rect.scrollbox-bg\\\").data([0]),this.bg.exit().on(\\\".drag\\\",null).on(\\\"wheel\\\",null).remove(),this.bg.enter().append(\\\"rect\\\").classed(\\\"scrollbox-bg\\\",!0).style(\\\"pointer-events\\\",\\\"all\\\").attr({opacity:0,x:0,y:0,width:0,height:0})}s.barWidth=2,s.barLength=20,s.barRadius=2,s.barPad=1,s.barColor=\\\"#808BA4\\\",s.prototype.enable=function(t,e,r){var o=this.gd._fullLayout,l=o.width,c=o.height;this.position=t;var u,f,h,p,d=this.position.l,g=this.position.w,v=this.position.t,m=this.position.h,y=this.position.direction,x=\\\"down\\\"===y,b=\\\"left\\\"===y,_=\\\"up\\\"===y,w=g,k=m;x||b||\\\"right\\\"===y||_||(this.position.direction=\\\"down\\\",x=!0),x||_?(f=(u=d)+w,x?(h=v,k=(p=Math.min(h+k,c))-h):k=(p=v+k)-(h=Math.max(p-k,0))):(p=(h=v)+k,b?w=(f=d+w)-(u=Math.max(f-w,0)):(u=d,w=(f=Math.min(u+w,l))-u)),this._box={l:u,t:h,w:w,h:k};var T=g>w,A=s.barLength+2*s.barPad,M=s.barWidth+2*s.barPad,S=d,E=v+m;E+M>c&&(E=c-M);var C=this.container.selectAll(\\\"rect.scrollbar-horizontal\\\").data(T?[0]:[]);C.exit().on(\\\".drag\\\",null).remove(),C.enter().append(\\\"rect\\\").classed(\\\"scrollbar-horizontal\\\",!0).call(i.fill,s.barColor),T?(this.hbar=C.attr({rx:s.barRadius,ry:s.barRadius,x:S,y:E,width:A,height:M}),this._hbarXMin=S+A/2,this._hbarTranslateMax=w-A):(delete this.hbar,delete this._hbarXMin,delete this._hbarTranslateMax);var L=m>k,z=s.barWidth+2*s.barPad,O=s.barLength+2*s.barPad,I=d+g,D=v;I+z>l&&(I=l-z);var P=this.container.selectAll(\\\"rect.scrollbar-vertical\\\").data(L?[0]:[]);P.exit().on(\\\".drag\\\",null).remove(),P.enter().append(\\\"rect\\\").classed(\\\"scrollbar-vertical\\\",!0).call(i.fill,s.barColor),L?(this.vbar=P.attr({rx:s.barRadius,ry:s.barRadius,x:I,y:D,width:z,height:O}),this._vbarYMin=D+O/2,this._vbarTranslateMax=k-O):(delete this.vbar,delete this._vbarYMin,delete this._vbarTranslateMax);var R=this.id,F=u-.5,B=L?f+z+.5:f+.5,N=h-.5,j=T?p+M+.5:p+.5,V=o._topdefs.selectAll(\\\"#\\\"+R).data(T||L?[0]:[]);if(V.exit().remove(),V.enter().append(\\\"clipPath\\\").attr(\\\"id\\\",R).append(\\\"rect\\\"),T||L?(this._clipRect=V.select(\\\"rect\\\").attr({x:Math.floor(F),y:Math.floor(N),width:Math.ceil(B)-Math.floor(F),height:Math.ceil(j)-Math.floor(N)}),this.container.call(a.setClipUrl,R,this.gd),this.bg.attr({x:d,y:v,width:g,height:m})):(this.bg.attr({width:0,height:0}),this.container.on(\\\"wheel\\\",null).on(\\\".drag\\\",null).call(a.setClipUrl,null),delete this._clipRect),T||L){var U=n.behavior.drag().on(\\\"dragstart\\\",function(){n.event.sourceEvent.preventDefault()}).on(\\\"drag\\\",this._onBoxDrag.bind(this));this.container.on(\\\"wheel\\\",null).on(\\\"wheel\\\",this._onBoxWheel.bind(this)).on(\\\".drag\\\",null).call(U);var H=n.behavior.drag().on(\\\"dragstart\\\",function(){n.event.sourceEvent.preventDefault(),n.event.sourceEvent.stopPropagation()}).on(\\\"drag\\\",this._onBarDrag.bind(this));T&&this.hbar.on(\\\".drag\\\",null).call(H),L&&this.vbar.on(\\\".drag\\\",null).call(H)}this.setTranslate(e,r)},s.prototype.disable=function(){(this.hbar||this.vbar)&&(this.bg.attr({width:0,height:0}),this.container.on(\\\"wheel\\\",null).on(\\\".drag\\\",null).call(a.setClipUrl,null),delete this._clipRect),this.hbar&&(this.hbar.on(\\\".drag\\\",null),this.hbar.remove(),delete this.hbar,delete this._hbarXMin,delete this._hbarTranslateMax),this.vbar&&(this.vbar.on(\\\".drag\\\",null),this.vbar.remove(),delete this.vbar,delete this._vbarYMin,delete this._vbarTranslateMax)},s.prototype._onBoxDrag=function(){var t=this.translateX,e=this.translateY;this.hbar&&(t-=n.event.dx),this.vbar&&(e-=n.event.dy),this.setTranslate(t,e)},s.prototype._onBoxWheel=function(){var t=this.translateX,e=this.translateY;this.hbar&&(t+=n.event.deltaY),this.vbar&&(e+=n.event.deltaY),this.setTranslate(t,e)},s.prototype._onBarDrag=function(){var t=this.translateX,e=this.translateY;if(this.hbar){var r=t+this._hbarXMin,i=r+this._hbarTranslateMax;t=(o.constrain(n.event.x,r,i)-r)/(i-r)*(this.position.w-this._box.w)}if(this.vbar){var a=e+this._vbarYMin,s=a+this._vbarTranslateMax;e=(o.constrain(n.event.y,a,s)-a)/(s-a)*(this.position.h-this._box.h)}this.setTranslate(t,e)},s.prototype.setTranslate=function(t,e){var r=this.position.w-this._box.w,n=this.position.h-this._box.h;if(t=o.constrain(t||0,0,r),e=o.constrain(e||0,0,n),this.translateX=t,this.translateY=e,this.container.call(a.setTranslate,this._box.l-this.position.l-t,this._box.t-this.position.t-e),this._clipRect&&this._clipRect.attr({x:Math.floor(this.position.l+t-.5),y:Math.floor(this.position.t+e-.5)}),this.hbar){var i=t/r;this.hbar.call(a.setTranslate,t+i*this._hbarTranslateMax,e)}if(this.vbar){var s=e/n;this.vbar.call(a.setTranslate,t,e+s*this._vbarTranslateMax)}}},{\\\"../../lib\\\":703,\\\"../color\\\":580,\\\"../drawing\\\":601,d3:157}],675:[function(t,e,r){\\\"use strict\\\";e.exports={FROM_BL:{left:0,center:.5,right:1,bottom:0,middle:.5,top:1},FROM_TL:{left:0,center:.5,right:1,bottom:1,middle:.5,top:0},FROM_BR:{left:1,center:.5,right:0,bottom:0,middle:.5,top:1},LINE_SPACING:1.3,CAP_SHIFT:.7,MID_SHIFT:.35,OPPOSITE_SIDE:{left:\\\"right\\\",right:\\\"left\\\",top:\\\"bottom\\\",bottom:\\\"top\\\"}}},{}],676:[function(t,e,r){\\\"use strict\\\";e.exports={COMPARISON_OPS:[\\\"=\\\",\\\"!=\\\",\\\"<\\\",\\\">=\\\",\\\">\\\",\\\"<=\\\"],COMPARISON_OPS2:[\\\"=\\\",\\\"<\\\",\\\">=\\\",\\\">\\\",\\\"<=\\\"],INTERVAL_OPS:[\\\"[]\\\",\\\"()\\\",\\\"[)\\\",\\\"(]\\\",\\\"][\\\",\\\")(\\\",\\\"](\\\",\\\")[\\\"],SET_OPS:[\\\"{}\\\",\\\"}{\\\"],CONSTRAINT_REDUCTION:{\\\"=\\\":\\\"=\\\",\\\"<\\\":\\\"<\\\",\\\"<=\\\":\\\"<\\\",\\\">\\\":\\\">\\\",\\\">=\\\":\\\">\\\",\\\"[]\\\":\\\"[]\\\",\\\"()\\\":\\\"[]\\\",\\\"[)\\\":\\\"[]\\\",\\\"(]\\\":\\\"[]\\\",\\\"][\\\":\\\"][\\\",\\\")(\\\":\\\"][\\\",\\\"](\\\":\\\"][\\\",\\\")[\\\":\\\"][\\\"}}},{}],677:[function(t,e,r){\\\"use strict\\\";e.exports={solid:[[],0],dot:[[.5,1],200],dash:[[.5,1],50],longdash:[[.5,1],10],dashdot:[[.5,.625,.875,1],50],longdashdot:[[.5,.7,.8,1],10]}},{}],678:[function(t,e,r){\\\"use strict\\\";e.exports={circle:\\\"\\\\u25cf\\\",\\\"circle-open\\\":\\\"\\\\u25cb\\\",square:\\\"\\\\u25a0\\\",\\\"square-open\\\":\\\"\\\\u25a1\\\",diamond:\\\"\\\\u25c6\\\",\\\"diamond-open\\\":\\\"\\\\u25c7\\\",cross:\\\"+\\\",x:\\\"\\\\u274c\\\"}},{}],679:[function(t,e,r){\\\"use strict\\\";e.exports={SHOW_PLACEHOLDER:100,HIDE_PLACEHOLDER:1e3,DBLCLICKDELAY:300,DESELECTDIM:.2}},{}],680:[function(t,e,r){\\\"use strict\\\";e.exports={BADNUM:void 0,FP_SAFE:Number.MAX_VALUE/1e4,ONEAVGYEAR:315576e5,ONEAVGMONTH:26298e5,ONEDAY:864e5,ONEHOUR:36e5,ONEMIN:6e4,ONESEC:1e3,EPOCHJD:2440587.5,ALMOST_EQUAL:1-1e-6,LOG_CLIP:10,MINUS_SIGN:\\\"\\\\u2212\\\"}},{}],681:[function(t,e,r){\\\"use strict\\\";r.xmlns=\\\"http://www.w3.org/2000/xmlns/\\\",r.svg=\\\"http://www.w3.org/2000/svg\\\",r.xlink=\\\"http://www.w3.org/1999/xlink\\\",r.svgAttrs={xmlns:r.svg,\\\"xmlns:xlink\\\":r.xlink}},{}],682:[function(t,e,r){\\\"use strict\\\";r.version=\\\"1.48.3\\\",t(\\\"es6-promise\\\").polyfill(),t(\\\"../build/plotcss\\\"),t(\\\"./fonts/mathjax_config\\\")();for(var n=t(\\\"./registry\\\"),i=r.register=n.register,a=t(\\\"./plot_api\\\"),o=Object.keys(a),s=0;s<o.length;s++){var l=o[s];\\\"_\\\"!==l.charAt(0)&&(r[l]=a[l]),i({moduleType:\\\"apiMethod\\\",name:l,fn:a[l]})}i(t(\\\"./traces/scatter\\\")),i([t(\\\"./components/fx\\\"),t(\\\"./components/legend\\\"),t(\\\"./components/annotations\\\"),t(\\\"./components/annotations3d\\\"),t(\\\"./components/shapes\\\"),t(\\\"./components/images\\\"),t(\\\"./components/updatemenus\\\"),t(\\\"./components/sliders\\\"),t(\\\"./components/rangeslider\\\"),t(\\\"./components/rangeselector\\\"),t(\\\"./components/grid\\\"),t(\\\"./components/errorbars\\\"),t(\\\"./components/colorscale\\\"),t(\\\"./components/colorbar\\\")]),i([t(\\\"./locale-en\\\"),t(\\\"./locale-en-us\\\")]),r.Icons=t(\\\"../build/ploticon\\\"),r.Plots=t(\\\"./plots/plots\\\"),r.Fx=t(\\\"./components/fx\\\"),r.Snapshot=t(\\\"./snapshot\\\"),r.PlotSchema=t(\\\"./plot_api/plot_schema\\\"),r.Queue=t(\\\"./lib/queue\\\"),r.d3=t(\\\"d3\\\")},{\\\"../build/plotcss\\\":1,\\\"../build/ploticon\\\":2,\\\"./components/annotations\\\":571,\\\"./components/annotations3d\\\":576,\\\"./components/colorbar\\\":586,\\\"./components/colorscale\\\":592,\\\"./components/errorbars\\\":607,\\\"./components/fx\\\":619,\\\"./components/grid\\\":623,\\\"./components/images\\\":628,\\\"./components/legend\\\":636,\\\"./components/rangeselector\\\":647,\\\"./components/rangeslider\\\":654,\\\"./components/shapes\\\":662,\\\"./components/sliders\\\":667,\\\"./components/updatemenus\\\":673,\\\"./fonts/mathjax_config\\\":683,\\\"./lib/queue\\\":718,\\\"./locale-en\\\":732,\\\"./locale-en-us\\\":731,\\\"./plot_api\\\":736,\\\"./plot_api/plot_schema\\\":740,\\\"./plots/plots\\\":812,\\\"./registry\\\":831,\\\"./snapshot\\\":836,\\\"./traces/scatter\\\":1086,d3:157,\\\"es6-promise\\\":213}],683:[function(t,e,r){\\\"use strict\\\";e.exports=function(){\\\"undefined\\\"!=typeof MathJax&&(\\\"local\\\"!==(window.PlotlyConfig||{}).MathJaxConfig&&(MathJax.Hub.Config({messageStyle:\\\"none\\\",skipStartupTypeset:!0,displayAlign:\\\"left\\\",tex2jax:{inlineMath:[[\\\"$\\\",\\\"$\\\"],[\\\"\\\\\\\\(\\\",\\\"\\\\\\\\)\\\"]]}}),MathJax.Hub.Configured()))}},{}],684:[function(t,e,r){\\\"use strict\\\";r.isLeftAnchor=function(t){return\\\"left\\\"===t.xanchor||\\\"auto\\\"===t.xanchor&&t.x<=1/3},r.isCenterAnchor=function(t){return\\\"center\\\"===t.xanchor||\\\"auto\\\"===t.xanchor&&t.x>1/3&&t.x<2/3},r.isRightAnchor=function(t){return\\\"right\\\"===t.xanchor||\\\"auto\\\"===t.xanchor&&t.x>=2/3},r.isTopAnchor=function(t){return\\\"top\\\"===t.yanchor||\\\"auto\\\"===t.yanchor&&t.y>=2/3},r.isMiddleAnchor=function(t){return\\\"middle\\\"===t.yanchor||\\\"auto\\\"===t.yanchor&&t.y>1/3&&t.y<2/3},r.isBottomAnchor=function(t){return\\\"bottom\\\"===t.yanchor||\\\"auto\\\"===t.yanchor&&t.y<=1/3}},{}],685:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./mod\\\"),i=n.mod,a=n.modHalf,o=Math.PI,s=2*o;function l(t){return Math.abs(t[1]-t[0])>s-1e-14}function c(t,e){return a(e-t,s)}function u(t,e){if(l(e))return!0;var r,n;e[0]<e[1]?(r=e[0],n=e[1]):(r=e[1],n=e[0]),(r=i(r,s))>(n=i(n,s))&&(n+=s);var a=i(t,s),o=a+s;return a>=r&&a<=n||o>=r&&o<=n}function f(t,e,r,n,i,a,c){i=i||0,a=a||0;var u,f,h,p,d,g=l([r,n]);function v(t,e){return[t*Math.cos(e)+i,a-t*Math.sin(e)]}g?(u=0,f=o,h=s):r<n?(u=r,h=n):(u=n,h=r),t<e?(p=t,d=e):(p=e,d=t);var m,y=Math.abs(h-u)<=o?0:1;function x(t,e,r){return\\\"A\\\"+[t,t]+\\\" \\\"+[0,y,r]+\\\" \\\"+v(t,e)}return g?m=null===p?\\\"M\\\"+v(d,u)+x(d,f,0)+x(d,h,0)+\\\"Z\\\":\\\"M\\\"+v(p,u)+x(p,f,0)+x(p,h,0)+\\\"ZM\\\"+v(d,u)+x(d,f,1)+x(d,h,1)+\\\"Z\\\":null===p?(m=\\\"M\\\"+v(d,u)+x(d,h,0),c&&(m+=\\\"L0,0Z\\\")):m=\\\"M\\\"+v(p,u)+\\\"L\\\"+v(d,u)+x(d,h,0)+\\\"L\\\"+v(p,h)+x(p,u,1)+\\\"Z\\\",m}e.exports={deg2rad:function(t){return t/180*o},rad2deg:function(t){return t/o*180},angleDelta:c,angleDist:function(t,e){return Math.abs(c(t,e))},isFullCircle:l,isAngleInsideSector:u,isPtInsideSector:function(t,e,r,n){return!!u(e,n)&&(r[0]<r[1]?(i=r[0],a=r[1]):(i=r[1],a=r[0]),t>=i&&t<=a);var i,a},pathArc:function(t,e,r,n,i){return f(null,t,e,r,n,i,0)},pathSector:function(t,e,r,n,i){return f(null,t,e,r,n,i,1)},pathAnnulus:function(t,e,r,n,i,a){return f(t,e,r,n,i,a,1)}}},{\\\"./mod\\\":710}],686:[function(t,e,r){\\\"use strict\\\";var n=Array.isArray,i=\\\"undefined\\\"!=typeof ArrayBuffer&&ArrayBuffer.isView?ArrayBuffer:{isView:function(){return!1}},a=\\\"undefined\\\"==typeof DataView?function(){}:DataView;function o(t){return i.isView(t)&&!(t instanceof a)}function s(t){return n(t)||o(t)}function l(t,e,r){if(s(t)){if(s(t[0])){for(var n=r,i=0;i<t.length;i++)n=e(n,t[i].length);return n}return t.length}return 0}r.isTypedArray=o,r.isArrayOrTypedArray=s,r.isArray1D=function(t){return!s(t[0])},r.ensureArray=function(t,e){return n(t)||(t=[]),t.length=e,t},r.concat=function(){var t,e,r,i,a,o,s,l,c=[],u=!0,f=0;for(r=0;r<arguments.length;r++)(o=(i=arguments[r]).length)&&(e?c.push(i):(e=i,a=o),n(i)?t=!1:(u=!1,f?t!==i.constructor&&(t=!1):t=i.constructor),f+=o);if(!f)return[];if(!c.length)return e;if(u)return e.concat.apply(e,c);if(t){for((s=new t(f)).set(e),r=0;r<c.length;r++)i=c[r],s.set(i,a),a+=i.length;return s}for(s=new Array(f),l=0;l<e.length;l++)s[l]=e[l];for(r=0;r<c.length;r++){for(i=c[r],l=0;l<i.length;l++)s[a+l]=i[l];a+=l}return s},r.maxRowLength=function(t){return l(t,Math.max,0)},r.minRowLength=function(t){return l(t,Math.min,1/0)}},{}],687:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../constants/numerical\\\").BADNUM,a=/^['\\\"%,$#\\\\s']+|[, ]|['\\\"%,$#\\\\s']+$/g;e.exports=function(t){return\\\"string\\\"==typeof t&&(t=t.replace(a,\\\"\\\")),n(t)?Number(t):i}},{\\\"../constants/numerical\\\":680,\\\"fast-isnumeric\\\":224}],688:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=t._fullLayout;e._glcanvas&&e._glcanvas.size()&&e._glcanvas.each(function(t){t.regl&&t.regl.clear({color:!0,depth:!0})})}},{}],689:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){t._responsiveChartHandler&&(window.removeEventListener(\\\"resize\\\",t._responsiveChartHandler),delete t._responsiveChartHandler)}},{}],690:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"tinycolor2\\\"),a=t(\\\"../plots/attributes\\\"),o=t(\\\"../components/colorscale/scales\\\"),s=t(\\\"../constants/interactions\\\").DESELECTDIM,l=t(\\\"./nested_property\\\"),c=t(\\\"./regex\\\").counter,u=t(\\\"./mod\\\").modHalf,f=t(\\\"./array\\\").isArrayOrTypedArray;function h(t,e){var n=r.valObjectMeta[e.valType];if(e.arrayOk&&f(t))return!0;if(n.validateFunction)return n.validateFunction(t,e);var i={},a=i,o={set:function(t){a=t}};return n.coerceFunction(t,o,i,e),a!==i}r.valObjectMeta={data_array:{coerceFunction:function(t,e,r){f(t)?e.set(t):void 0!==r&&e.set(r)}},enumerated:{coerceFunction:function(t,e,r,n){n.coerceNumber&&(t=+t),-1===n.values.indexOf(t)?e.set(r):e.set(t)},validateFunction:function(t,e){e.coerceNumber&&(t=+t);for(var r=e.values,n=0;n<r.length;n++){var i=String(r[n]);if(\\\"/\\\"===i.charAt(0)&&\\\"/\\\"===i.charAt(i.length-1)){if(new RegExp(i.substr(1,i.length-2)).test(t))return!0}else if(t===r[n])return!0}return!1}},boolean:{coerceFunction:function(t,e,r){!0===t||!1===t?e.set(t):e.set(r)}},number:{coerceFunction:function(t,e,r,i){!n(t)||void 0!==i.min&&t<i.min||void 0!==i.max&&t>i.max?e.set(r):e.set(+t)}},integer:{coerceFunction:function(t,e,r,i){t%1||!n(t)||void 0!==i.min&&t<i.min||void 0!==i.max&&t>i.max?e.set(r):e.set(+t)}},string:{coerceFunction:function(t,e,r,n){if(\\\"string\\\"!=typeof t){var i=\\\"number\\\"==typeof t;!0!==n.strict&&i?e.set(String(t)):e.set(r)}else n.noBlank&&!t?e.set(r):e.set(t)}},color:{coerceFunction:function(t,e,r){i(t).isValid()?e.set(t):e.set(r)}},colorlist:{coerceFunction:function(t,e,r){Array.isArray(t)&&t.length&&t.every(function(t){return i(t).isValid()})?e.set(t):e.set(r)}},colorscale:{coerceFunction:function(t,e,r){e.set(o.get(t,r))}},angle:{coerceFunction:function(t,e,r){\\\"auto\\\"===t?e.set(\\\"auto\\\"):n(t)?e.set(u(+t,360)):e.set(r)}},subplotid:{coerceFunction:function(t,e,r,n){var i=n.regex||c(r);\\\"string\\\"==typeof t&&i.test(t)?e.set(t):e.set(r)},validateFunction:function(t,e){var r=e.dflt;return t===r||\\\"string\\\"==typeof t&&!!c(r).test(t)}},flaglist:{coerceFunction:function(t,e,r,n){if(\\\"string\\\"==typeof t)if(-1===(n.extras||[]).indexOf(t)){for(var i=t.split(\\\"+\\\"),a=0;a<i.length;){var o=i[a];-1===n.flags.indexOf(o)||i.indexOf(o)<a?i.splice(a,1):a++}i.length?e.set(i.join(\\\"+\\\")):e.set(r)}else e.set(t);else e.set(r)}},any:{coerceFunction:function(t,e,r){void 0===t?e.set(r):e.set(t)}},info_array:{coerceFunction:function(t,e,n,i){function a(t,e,n){var i,a={set:function(t){i=t}};return void 0===n&&(n=e.dflt),r.valObjectMeta[e.valType].coerceFunction(t,a,n,e),i}var o=2===i.dimensions||\\\"1-2\\\"===i.dimensions&&Array.isArray(t)&&Array.isArray(t[0]);if(Array.isArray(t)){var s,l,c,u,f,h,p=i.items,d=[],g=Array.isArray(p),v=g&&o&&Array.isArray(p[0]),m=o&&g&&!v,y=g&&!m?p.length:t.length;if(n=Array.isArray(n)?n:[],o)for(s=0;s<y;s++)for(d[s]=[],c=Array.isArray(t[s])?t[s]:[],f=m?p.length:g?p[s].length:c.length,l=0;l<f;l++)u=m?p[l]:g?p[s][l]:p,void 0!==(h=a(c[l],u,(n[s]||[])[l]))&&(d[s][l]=h);else for(s=0;s<y;s++)void 0!==(h=a(t[s],g?p[s]:p,n[s]))&&(d[s]=h);e.set(d)}else e.set(n)},validateFunction:function(t,e){if(!Array.isArray(t))return!1;var r=e.items,n=Array.isArray(r),i=2===e.dimensions;if(!e.freeLength&&t.length!==r.length)return!1;for(var a=0;a<t.length;a++)if(i){if(!Array.isArray(t[a])||!e.freeLength&&t[a].length!==r[a].length)return!1;for(var o=0;o<t[a].length;o++)if(!h(t[a][o],n?r[a][o]:r))return!1}else if(!h(t[a],n?r[a]:r))return!1;return!0}}},r.coerce=function(t,e,n,i,a){var o=l(n,i).get(),s=l(t,i),c=l(e,i),u=s.get(),p=e._template;if(void 0===u&&p&&(u=l(p,i).get(),p=0),void 0===a&&(a=o.dflt),o.arrayOk&&f(u))return c.set(u),u;var d=r.valObjectMeta[o.valType].coerceFunction;d(u,c,a,o);var g=c.get();return p&&g===a&&!h(u,o)&&(d(u=l(p,i).get(),c,a,o),g=c.get()),g},r.coerce2=function(t,e,n,i,a){var o=l(t,i),s=r.coerce(t,e,n,i,a),c=o.get();return null!=c&&s},r.coerceFont=function(t,e,r){var n={};return r=r||{},n.family=t(e+\\\".family\\\",r.family),n.size=t(e+\\\".size\\\",r.size),n.color=t(e+\\\".color\\\",r.color),n},r.coerceHoverinfo=function(t,e,n){var i,o=e._module.attributes,s=o.hoverinfo?o:a,l=s.hoverinfo;if(1===n._dataLength){var c=\\\"all\\\"===l.dflt?l.flags.slice():l.dflt.split(\\\"+\\\");c.splice(c.indexOf(\\\"name\\\"),1),i=c.join(\\\"+\\\")}return r.coerce(t,e,s,\\\"hoverinfo\\\",i)},r.coerceSelectionMarkerOpacity=function(t,e){if(t.marker){var r,n,i=t.marker.opacity;if(void 0!==i)f(i)||t.selected||t.unselected||(r=i,n=s*i),e(\\\"selected.marker.opacity\\\",r),e(\\\"unselected.marker.opacity\\\",n)}},r.validate=h},{\\\"../components/colorscale/scales\\\":595,\\\"../constants/interactions\\\":679,\\\"../plots/attributes\\\":748,\\\"./array\\\":686,\\\"./mod\\\":710,\\\"./nested_property\\\":711,\\\"./regex\\\":719,\\\"fast-isnumeric\\\":224,tinycolor2:524}],691:[function(t,e,r){\\\"use strict\\\";var n,i,a=t(\\\"d3\\\"),o=t(\\\"fast-isnumeric\\\"),s=t(\\\"./loggers\\\"),l=t(\\\"./mod\\\").mod,c=t(\\\"../constants/numerical\\\"),u=c.BADNUM,f=c.ONEDAY,h=c.ONEHOUR,p=c.ONEMIN,d=c.ONESEC,g=c.EPOCHJD,v=t(\\\"../registry\\\"),m=a.time.format.utc,y=/^\\\\s*(-?\\\\d\\\\d\\\\d\\\\d|\\\\d\\\\d)(-(\\\\d?\\\\d)(-(\\\\d?\\\\d)([ Tt]([01]?\\\\d|2[0-3])(:([0-5]\\\\d)(:([0-5]\\\\d(\\\\.\\\\d+)?))?(Z|z|[+\\\\-]\\\\d\\\\d:?\\\\d\\\\d)?)?)?)?)?\\\\s*$/m,x=/^\\\\s*(-?\\\\d\\\\d\\\\d\\\\d|\\\\d\\\\d)(-(\\\\d?\\\\di?)(-(\\\\d?\\\\d)([ Tt]([01]?\\\\d|2[0-3])(:([0-5]\\\\d)(:([0-5]\\\\d(\\\\.\\\\d+)?))?(Z|z|[+\\\\-]\\\\d\\\\d:?\\\\d\\\\d)?)?)?)?)?\\\\s*$/m,b=(new Date).getFullYear()-70;function _(t){return t&&v.componentsRegistry.calendars&&\\\"string\\\"==typeof t&&\\\"gregorian\\\"!==t}function w(t,e){return String(t+Math.pow(10,e)).substr(1)}r.dateTick0=function(t,e){return _(t)?e?v.getComponentMethod(\\\"calendars\\\",\\\"CANONICAL_SUNDAY\\\")[t]:v.getComponentMethod(\\\"calendars\\\",\\\"CANONICAL_TICK\\\")[t]:e?\\\"2000-01-02\\\":\\\"2000-01-01\\\"},r.dfltRange=function(t){return _(t)?v.getComponentMethod(\\\"calendars\\\",\\\"DFLTRANGE\\\")[t]:[\\\"2000-01-01\\\",\\\"2001-01-01\\\"]},r.isJSDate=function(t){return\\\"object\\\"==typeof t&&null!==t&&\\\"function\\\"==typeof t.getTime},r.dateTime2ms=function(t,e){if(r.isJSDate(t)){var a=t.getTimezoneOffset()*p,o=(t.getUTCMinutes()-t.getMinutes())*p+(t.getUTCSeconds()-t.getSeconds())*d+(t.getUTCMilliseconds()-t.getMilliseconds());if(o){var s=3*p;a=a-s/2+l(o-a+s/2,s)}return(t=Number(t)-a)>=n&&t<=i?t:u}if(\\\"string\\\"!=typeof t&&\\\"number\\\"!=typeof t)return u;t=String(t);var c=_(e),m=t.charAt(0);!c||\\\"G\\\"!==m&&\\\"g\\\"!==m||(t=t.substr(1),e=\\\"\\\");var w=c&&\\\"chinese\\\"===e.substr(0,7),k=t.match(w?x:y);if(!k)return u;var T=k[1],A=k[3]||\\\"1\\\",M=Number(k[5]||1),S=Number(k[7]||0),E=Number(k[9]||0),C=Number(k[11]||0);if(c){if(2===T.length)return u;var L;T=Number(T);try{var z=v.getComponentMethod(\\\"calendars\\\",\\\"getCal\\\")(e);if(w){var O=\\\"i\\\"===A.charAt(A.length-1);A=parseInt(A,10),L=z.newDate(T,z.toMonthIndex(T,A,O),M)}else L=z.newDate(T,Number(A),M)}catch(t){return u}return L?(L.toJD()-g)*f+S*h+E*p+C*d:u}T=2===T.length?(Number(T)+2e3-b)%100+b:Number(T),A-=1;var I=new Date(Date.UTC(2e3,A,M,S,E));return I.setUTCFullYear(T),I.getUTCMonth()!==A?u:I.getUTCDate()!==M?u:I.getTime()+C*d},n=r.MIN_MS=r.dateTime2ms(\\\"-9999\\\"),i=r.MAX_MS=r.dateTime2ms(\\\"9999-12-31 23:59:59.9999\\\"),r.isDateTime=function(t,e){return r.dateTime2ms(t,e)!==u};var k=90*f,T=3*h,A=5*p;function M(t,e,r,n,i){if((e||r||n||i)&&(t+=\\\" \\\"+w(e,2)+\\\":\\\"+w(r,2),(n||i)&&(t+=\\\":\\\"+w(n,2),i))){for(var a=4;i%10==0;)a-=1,i/=10;t+=\\\".\\\"+w(i,a)}return t}r.ms2DateTime=function(t,e,r){if(\\\"number\\\"!=typeof t||!(t>=n&&t<=i))return u;e||(e=0);var a,o,s,c,y,x,b=Math.floor(10*l(t+.05,1)),w=Math.round(t-b/10);if(_(r)){var S=Math.floor(w/f)+g,E=Math.floor(l(t,f));try{a=v.getComponentMethod(\\\"calendars\\\",\\\"getCal\\\")(r).fromJD(S).formatDate(\\\"yyyy-mm-dd\\\")}catch(t){a=m(\\\"G%Y-%m-%d\\\")(new Date(w))}if(\\\"-\\\"===a.charAt(0))for(;a.length<11;)a=\\\"-0\\\"+a.substr(1);else for(;a.length<10;)a=\\\"0\\\"+a;o=e<k?Math.floor(E/h):0,s=e<k?Math.floor(E%h/p):0,c=e<T?Math.floor(E%p/d):0,y=e<A?E%d*10+b:0}else x=new Date(w),a=m(\\\"%Y-%m-%d\\\")(x),o=e<k?x.getUTCHours():0,s=e<k?x.getUTCMinutes():0,c=e<T?x.getUTCSeconds():0,y=e<A?10*x.getUTCMilliseconds()+b:0;return M(a,o,s,c,y)},r.ms2DateTimeLocal=function(t){if(!(t>=n+f&&t<=i-f))return u;var e=Math.floor(10*l(t+.05,1)),r=new Date(Math.round(t-e/10));return M(a.time.format(\\\"%Y-%m-%d\\\")(r),r.getHours(),r.getMinutes(),r.getSeconds(),10*r.getUTCMilliseconds()+e)},r.cleanDate=function(t,e,n){if(t===u)return e;if(r.isJSDate(t)||\\\"number\\\"==typeof t&&isFinite(t)){if(_(n))return s.error(\\\"JS Dates and milliseconds are incompatible with world calendars\\\",t),e;if(!(t=r.ms2DateTimeLocal(+t))&&void 0!==e)return e}else if(!r.isDateTime(t,n))return s.error(\\\"unrecognized date\\\",t),e;return t};var S=/%\\\\d?f/g;function E(t,e,r,n){t=t.replace(S,function(t){var r=Math.min(+t.charAt(1)||6,6);return(e/1e3%1+2).toFixed(r).substr(2).replace(/0+$/,\\\"\\\")||\\\"0\\\"});var i=new Date(Math.floor(e+.05));if(_(n))try{t=v.getComponentMethod(\\\"calendars\\\",\\\"worldCalFmt\\\")(t,e,n)}catch(t){return\\\"Invalid\\\"}return r(t)(i)}var C=[59,59.9,59.99,59.999,59.9999];r.formatDate=function(t,e,r,n,i,a){if(i=_(i)&&i,!e)if(\\\"y\\\"===r)e=a.year;else if(\\\"m\\\"===r)e=a.month;else{if(\\\"d\\\"!==r)return function(t,e){var r=l(t+.05,f),n=w(Math.floor(r/h),2)+\\\":\\\"+w(l(Math.floor(r/p),60),2);if(\\\"M\\\"!==e){o(e)||(e=0);var i=(100+Math.min(l(t/d,60),C[e])).toFixed(e).substr(1);e>0&&(i=i.replace(/0+$/,\\\"\\\").replace(/[\\\\.]$/,\\\"\\\")),n+=\\\":\\\"+i}return n}(t,r)+\\\"\\\\n\\\"+E(a.dayMonthYear,t,n,i);e=a.dayMonth+\\\"\\\\n\\\"+a.year}return E(e,t,n,i)};var L=3*f;r.incrementMonth=function(t,e,r){r=_(r)&&r;var n=l(t,f);if(t=Math.round(t-n),r)try{var i=Math.round(t/f)+g,a=v.getComponentMethod(\\\"calendars\\\",\\\"getCal\\\")(r),o=a.fromJD(i);return e%12?a.add(o,e,\\\"m\\\"):a.add(o,e/12,\\\"y\\\"),(o.toJD()-g)*f+n}catch(e){s.error(\\\"invalid ms \\\"+t+\\\" in calendar \\\"+r)}var c=new Date(t+L);return c.setUTCMonth(c.getUTCMonth()+e)+n-L},r.findExactDates=function(t,e){for(var r,n,i=0,a=0,s=0,l=0,c=_(e)&&v.getComponentMethod(\\\"calendars\\\",\\\"getCal\\\")(e),u=0;u<t.length;u++)if(n=t[u],o(n)){if(!(n%f))if(c)try{1===(r=c.fromJD(n/f+g)).day()?1===r.month()?i++:a++:s++}catch(t){}else 1===(r=new Date(n)).getUTCDate()?0===r.getUTCMonth()?i++:a++:s++}else l++;s+=a+=i;var h=t.length-l;return{exactYears:i/h,exactMonths:a/h,exactDays:s/h}}},{\\\"../constants/numerical\\\":680,\\\"../registry\\\":831,\\\"./loggers\\\":707,\\\"./mod\\\":710,d3:157,\\\"fast-isnumeric\\\":224}],692:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"events\\\").EventEmitter,i={init:function(t){if(t._ev instanceof n)return t;var e=new n,r=new n;return t._ev=e,t._internalEv=r,t.on=e.on.bind(e),t.once=e.once.bind(e),t.removeListener=e.removeListener.bind(e),t.removeAllListeners=e.removeAllListeners.bind(e),t._internalOn=r.on.bind(r),t._internalOnce=r.once.bind(r),t._removeInternalListener=r.removeListener.bind(r),t._removeAllInternalListeners=r.removeAllListeners.bind(r),t.emit=function(n,i){\\\"undefined\\\"!=typeof jQuery&&jQuery(t).trigger(n,i),e.emit(n,i),r.emit(n,i)},t},triggerHandler:function(t,e,r){var n,i;\\\"undefined\\\"!=typeof jQuery&&(n=jQuery(t).triggerHandler(e,r));var a=t._ev;if(!a)return n;var o,s=a._events[e];if(!s)return n;function l(t){return t.listener?(a.removeListener(e,t.listener),t.fired?void 0:(t.fired=!0,t.listener.apply(a,[r]))):t.apply(a,[r])}for(s=Array.isArray(s)?s:[s],o=0;o<s.length-1;o++)l(s[o]);return i=l(s[o]),void 0!==n?n:i},purge:function(t){return delete t._ev,delete t.on,delete t.once,delete t.removeListener,delete t.removeAllListeners,delete t.emit,delete t._ev,delete t._internalEv,delete t._internalOn,delete t._internalOnce,delete t._removeInternalListener,delete t._removeAllInternalListeners,t}};e.exports=i},{events:97}],693:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./is_plain_object.js\\\"),i=Array.isArray;function a(t,e,r,o){var s,l,c,u,f,h,p=t[0],d=t.length;if(2===d&&i(p)&&i(t[1])&&0===p.length){if(function(t,e){var r,n;for(r=0;r<t.length;r++){if(null!==(n=t[r])&&\\\"object\\\"==typeof n)return!1;void 0!==n&&(e[r]=n)}return!0}(t[1],p))return p;p.splice(0,p.length)}for(var g=1;g<d;g++)for(l in s=t[g])c=p[l],u=s[l],o&&i(u)?p[l]=u:e&&u&&(n(u)||(f=i(u)))?(f?(f=!1,h=c&&i(c)?c:[]):h=c&&n(c)?c:{},p[l]=a([h,u],e,r,o)):(\\\"undefined\\\"!=typeof u||r)&&(p[l]=u);return p}r.extendFlat=function(){return a(arguments,!1,!1,!1)},r.extendDeep=function(){return a(arguments,!0,!1,!1)},r.extendDeepAll=function(){return a(arguments,!0,!0,!1)},r.extendDeepNoArrays=function(){return a(arguments,!0,!1,!0)}},{\\\"./is_plain_object.js\\\":704}],694:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){for(var e={},r=[],n=0,i=0;i<t.length;i++){var a=t[i];1!==e[a]&&(e[a]=1,r[n++]=a)}return r}},{}],695:[function(t,e,r){\\\"use strict\\\";function n(t){return!0===t.visible}function i(t){var e=t[0].trace;return!0===e.visible&&0!==e._length}e.exports=function(t){for(var e,r=(e=t,Array.isArray(e)&&Array.isArray(e[0])&&e[0][0]&&e[0][0].trace?i:n),a=[],o=0;o<t.length;o++){var s=t[o];r(s)&&a.push(s)}return a}},{}],696:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"country-regex\\\"),i=t(\\\"../lib\\\"),a=Object.keys(n),o={\\\"ISO-3\\\":i.identity,\\\"USA-states\\\":i.identity,\\\"country names\\\":function(t){for(var e=0;e<a.length;e++){var r=a[e],o=new RegExp(n[r]);if(o.test(t.trim().toLowerCase()))return r}return i.log(\\\"Unrecognized country name: \\\"+t+\\\".\\\"),!1}};e.exports={locationToFeature:function(t,e,r){if(!e||\\\"string\\\"!=typeof e)return!1;var n,a,s,l=o[t](e);if(l){if(\\\"USA-states\\\"===t)for(n=[],s=0;s<r.length;s++)(a=r[s]).properties&&a.properties.gu&&\\\"USA\\\"===a.properties.gu&&n.push(a);else n=r;for(s=0;s<n.length;s++)if((a=n[s]).id===l)return a;i.log([\\\"Location with id\\\",l,\\\"does not have a matching topojson feature at this resolution.\\\"].join(\\\" \\\"))}return!1}}},{\\\"../lib\\\":703,\\\"country-regex\\\":127}],697:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../constants/numerical\\\").BADNUM;r.calcTraceToLineCoords=function(t){for(var e=t[0].trace.connectgaps,r=[],i=[],a=0;a<t.length;a++){var o=t[a].lonlat;o[0]!==n?i.push(o):!e&&i.length>0&&(r.push(i),i=[])}return i.length>0&&r.push(i),r},r.makeLine=function(t){return 1===t.length?{type:\\\"LineString\\\",coordinates:t[0]}:{type:\\\"MultiLineString\\\",coordinates:t}},r.makePolygon=function(t){if(1===t.length)return{type:\\\"Polygon\\\",coordinates:t};for(var e=new Array(t.length),r=0;r<t.length;r++)e[r]=[t[r]];return{type:\\\"MultiPolygon\\\",coordinates:e}},r.makeBlank=function(){return{type:\\\"Point\\\",coordinates:[]}}},{\\\"../constants/numerical\\\":680}],698:[function(t,e,r){\\\"use strict\\\";var n,i,a,o=t(\\\"./mod\\\").mod;function s(t,e,r,n,i,a,o,s){var l=r-t,c=i-t,u=o-i,f=n-e,h=a-e,p=s-a,d=l*p-u*f;if(0===d)return null;var g=(c*p-u*h)/d,v=(c*f-l*h)/d;return v<0||v>1||g<0||g>1?null:{x:t+l*g,y:e+f*g}}function l(t,e,r,n,i){var a=n*t+i*e;if(a<0)return n*n+i*i;if(a>r){var o=n-t,s=i-e;return o*o+s*s}var l=n*e-i*t;return l*l/r}r.segmentsIntersect=s,r.segmentDistance=function(t,e,r,n,i,a,o,c){if(s(t,e,r,n,i,a,o,c))return 0;var u=r-t,f=n-e,h=o-i,p=c-a,d=u*u+f*f,g=h*h+p*p,v=Math.min(l(u,f,d,i-t,a-e),l(u,f,d,o-t,c-e),l(h,p,g,t-i,e-a),l(h,p,g,r-i,n-a));return Math.sqrt(v)},r.getTextLocation=function(t,e,r,s){if(t===i&&s===a||(n={},i=t,a=s),n[r])return n[r];var l=t.getPointAtLength(o(r-s/2,e)),c=t.getPointAtLength(o(r+s/2,e)),u=Math.atan((c.y-l.y)/(c.x-l.x)),f=t.getPointAtLength(o(r,e)),h={x:(4*f.x+l.x+c.x)/6,y:(4*f.y+l.y+c.y)/6,theta:u};return n[r]=h,h},r.clearLocationCache=function(){i=null},r.getVisibleSegment=function(t,e,r){var n,i,a=e.left,o=e.right,s=e.top,l=e.bottom,c=0,u=t.getTotalLength(),f=u;function h(e){var r=t.getPointAtLength(e);0===e?n=r:e===u&&(i=r);var c=r.x<a?a-r.x:r.x>o?r.x-o:0,f=r.y<s?s-r.y:r.y>l?r.y-l:0;return Math.sqrt(c*c+f*f)}for(var p=h(c);p;){if((c+=p+r)>f)return;p=h(c)}for(p=h(f);p;){if(c>(f-=p+r))return;p=h(f)}return{min:c,max:f,len:f-c,total:u,isClosed:0===c&&f===u&&Math.abs(n.x-i.x)<.1&&Math.abs(n.y-i.y)<.1}},r.findPointOnPath=function(t,e,r,n){for(var i,a,o,s=(n=n||{}).pathLength||t.getTotalLength(),l=n.tolerance||.001,c=n.iterationLimit||30,u=t.getPointAtLength(0)[r]>t.getPointAtLength(s)[r]?-1:1,f=0,h=0,p=s;f<c;){if(i=(h+p)/2,o=(a=t.getPointAtLength(i))[r]-e,Math.abs(o)<l)return a;u*o>0?p=i:h=i,f++}return a}},{\\\"./mod\\\":710}],699:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e;if(\\\"string\\\"==typeof t){if(null===(e=document.getElementById(t)))throw new Error(\\\"No DOM element with id '\\\"+t+\\\"' exists on the page.\\\");return e}if(null==t)throw new Error(\\\"DOM element provided is null or undefined\\\");return t}},{}],700:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"tinycolor2\\\"),a=t(\\\"color-normalize\\\"),o=t(\\\"../components/colorscale\\\"),s=t(\\\"../components/color/attributes\\\").defaultLine,l=t(\\\"./array\\\").isArrayOrTypedArray,c=a(s),u=1;function f(t,e){var r=t;return r[3]*=e,r}function h(t){if(n(t))return c;var e=a(t);return e.length?e:c}function p(t){return n(t)?t:u}e.exports={formatColor:function(t,e,r){var n,i,s,d,g,v=t.color,m=l(v),y=l(e),x=o.extractOpts(t),b=[];if(n=void 0!==x.colorscale?o.makeColorScaleFuncFromTrace(t):h,i=m?function(t,e){return void 0===t[e]?c:a(n(t[e]))}:h,s=y?function(t,e){return void 0===t[e]?u:p(t[e])}:p,m||y)for(var _=0;_<r;_++)d=i(v,_),g=s(e,_),b[_]=f(d,g);else b=f(a(v),e);return b},parseColorScale:function(t,e){void 0===e&&(e=1);var r=o.extractOpts(t);return(r.reversescale?o.flipScale(r.colorscale):r.colorscale).map(function(t){var r=t[0],n=i(t[1]).toRgb();return{index:r,rgb:[n.r,n.g,n.b,e]}})}}},{\\\"../components/color/attributes\\\":579,\\\"../components/colorscale\\\":592,\\\"./array\\\":686,\\\"color-normalize\\\":113,\\\"fast-isnumeric\\\":224,tinycolor2:524}],701:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./identity\\\");function i(t){return[t]}e.exports={keyFun:function(t){return t.key},repeat:i,descend:n,wrap:i,unwrap:function(t){return t[0]}}},{\\\"./identity\\\":702}],702:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){return t}},{}],703:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"fast-isnumeric\\\"),a=t(\\\"../constants/numerical\\\"),o=a.FP_SAFE,s=a.BADNUM,l=e.exports={};l.nestedProperty=t(\\\"./nested_property\\\"),l.keyedContainer=t(\\\"./keyed_container\\\"),l.relativeAttr=t(\\\"./relative_attr\\\"),l.isPlainObject=t(\\\"./is_plain_object\\\"),l.toLogRange=t(\\\"./to_log_range\\\"),l.relinkPrivateKeys=t(\\\"./relink_private\\\");var c=t(\\\"./array\\\");l.isTypedArray=c.isTypedArray,l.isArrayOrTypedArray=c.isArrayOrTypedArray,l.isArray1D=c.isArray1D,l.ensureArray=c.ensureArray,l.concat=c.concat,l.maxRowLength=c.maxRowLength,l.minRowLength=c.minRowLength;var u=t(\\\"./mod\\\");l.mod=u.mod,l.modHalf=u.modHalf;var f=t(\\\"./coerce\\\");l.valObjectMeta=f.valObjectMeta,l.coerce=f.coerce,l.coerce2=f.coerce2,l.coerceFont=f.coerceFont,l.coerceHoverinfo=f.coerceHoverinfo,l.coerceSelectionMarkerOpacity=f.coerceSelectionMarkerOpacity,l.validate=f.validate;var h=t(\\\"./dates\\\");l.dateTime2ms=h.dateTime2ms,l.isDateTime=h.isDateTime,l.ms2DateTime=h.ms2DateTime,l.ms2DateTimeLocal=h.ms2DateTimeLocal,l.cleanDate=h.cleanDate,l.isJSDate=h.isJSDate,l.formatDate=h.formatDate,l.incrementMonth=h.incrementMonth,l.dateTick0=h.dateTick0,l.dfltRange=h.dfltRange,l.findExactDates=h.findExactDates,l.MIN_MS=h.MIN_MS,l.MAX_MS=h.MAX_MS;var p=t(\\\"./search\\\");l.findBin=p.findBin,l.sorterAsc=p.sorterAsc,l.sorterDes=p.sorterDes,l.distinctVals=p.distinctVals,l.roundUp=p.roundUp,l.sort=p.sort,l.findIndexOfMin=p.findIndexOfMin;var d=t(\\\"./stats\\\");l.aggNums=d.aggNums,l.len=d.len,l.mean=d.mean,l.median=d.median,l.midRange=d.midRange,l.variance=d.variance,l.stdev=d.stdev,l.interp=d.interp;var g=t(\\\"./matrix\\\");l.init2dArray=g.init2dArray,l.transposeRagged=g.transposeRagged,l.dot=g.dot,l.translationMatrix=g.translationMatrix,l.rotationMatrix=g.rotationMatrix,l.rotationXYMatrix=g.rotationXYMatrix,l.apply2DTransform=g.apply2DTransform,l.apply2DTransform2=g.apply2DTransform2;var v=t(\\\"./angles\\\");l.deg2rad=v.deg2rad,l.rad2deg=v.rad2deg,l.angleDelta=v.angleDelta,l.angleDist=v.angleDist,l.isFullCircle=v.isFullCircle,l.isAngleInsideSector=v.isAngleInsideSector,l.isPtInsideSector=v.isPtInsideSector,l.pathArc=v.pathArc,l.pathSector=v.pathSector,l.pathAnnulus=v.pathAnnulus;var m=t(\\\"./anchor_utils\\\");l.isLeftAnchor=m.isLeftAnchor,l.isCenterAnchor=m.isCenterAnchor,l.isRightAnchor=m.isRightAnchor,l.isTopAnchor=m.isTopAnchor,l.isMiddleAnchor=m.isMiddleAnchor,l.isBottomAnchor=m.isBottomAnchor;var y=t(\\\"./geometry2d\\\");l.segmentsIntersect=y.segmentsIntersect,l.segmentDistance=y.segmentDistance,l.getTextLocation=y.getTextLocation,l.clearLocationCache=y.clearLocationCache,l.getVisibleSegment=y.getVisibleSegment,l.findPointOnPath=y.findPointOnPath;var x=t(\\\"./extend\\\");l.extendFlat=x.extendFlat,l.extendDeep=x.extendDeep,l.extendDeepAll=x.extendDeepAll,l.extendDeepNoArrays=x.extendDeepNoArrays;var b=t(\\\"./loggers\\\");l.log=b.log,l.warn=b.warn,l.error=b.error;var _=t(\\\"./regex\\\");l.counterRegex=_.counter;var w=t(\\\"./throttle\\\");function k(t){var e={};for(var r in t)for(var n=t[r],i=0;i<n.length;i++)e[n[i]]=+r;return e}l.throttle=w.throttle,l.throttleDone=w.done,l.clearThrottle=w.clear,l.getGraphDiv=t(\\\"./get_graph_div\\\"),l.clearResponsive=t(\\\"./clear_responsive\\\"),l.makeTraceGroups=t(\\\"./make_trace_groups\\\"),l._=t(\\\"./localize\\\"),l.notifier=t(\\\"./notifier\\\"),l.filterUnique=t(\\\"./filter_unique\\\"),l.filterVisible=t(\\\"./filter_visible\\\"),l.pushUnique=t(\\\"./push_unique\\\"),l.cleanNumber=t(\\\"./clean_number\\\"),l.ensureNumber=function(t){return i(t)?(t=Number(t))<-o||t>o?s:i(t)?Number(t):s:s},l.isIndex=function(t,e){return!(void 0!==e&&t>=e)&&(i(t)&&t>=0&&t%1==0)},l.noop=t(\\\"./noop\\\"),l.identity=t(\\\"./identity\\\"),l.repeat=function(t,e){for(var r=new Array(e),n=0;n<e;n++)r[n]=t;return r},l.swapAttrs=function(t,e,r,n){r||(r=\\\"x\\\"),n||(n=\\\"y\\\");for(var i=0;i<e.length;i++){var a=e[i],o=l.nestedProperty(t,a.replace(\\\"?\\\",r)),s=l.nestedProperty(t,a.replace(\\\"?\\\",n)),c=o.get();o.set(s.get()),s.set(c)}},l.raiseToTop=function(t){t.parentNode.appendChild(t)},l.cancelTransition=function(t){return t.transition().duration(0)},l.constrain=function(t,e,r){return e>r?Math.max(r,Math.min(e,t)):Math.max(e,Math.min(r,t))},l.bBoxIntersect=function(t,e,r){return r=r||0,t.left<=e.right+r&&e.left<=t.right+r&&t.top<=e.bottom+r&&e.top<=t.bottom+r},l.simpleMap=function(t,e,r,n){for(var i=t.length,a=new Array(i),o=0;o<i;o++)a[o]=e(t[o],r,n);return a},l.randstr=function t(e,r,n,i){if(n||(n=16),void 0===r&&(r=24),r<=0)return\\\"0\\\";var a,o,s=Math.log(Math.pow(2,r))/Math.log(n),c=\\\"\\\";for(a=2;s===1/0;a*=2)s=Math.log(Math.pow(2,r/a))/Math.log(n)*a;var u=s-Math.floor(s);for(a=0;a<Math.floor(s);a++)c=Math.floor(Math.random()*n).toString(n)+c;u&&(o=Math.pow(n,u),c=Math.floor(Math.random()*o).toString(n)+c);var f=parseInt(c,n);return e&&e[c]||f!==1/0&&f>=Math.pow(2,r)?i>10?(l.warn(\\\"randstr failed uniqueness\\\"),c):t(e,r,n,(i||0)+1):c},l.OptionControl=function(t,e){t||(t={}),e||(e=\\\"opt\\\");var r={optionList:[],_newoption:function(n){n[e]=t,r[n.name]=n,r.optionList.push(n)}};return r[\\\"_\\\"+e]=t,r},l.smooth=function(t,e){if((e=Math.round(e)||0)<2)return t;var r,n,i,a,o=t.length,s=2*o,l=2*e-1,c=new Array(l),u=new Array(o);for(r=0;r<l;r++)c[r]=(1-Math.cos(Math.PI*(r+1)/e))/(2*e);for(r=0;r<o;r++){for(a=0,n=0;n<l;n++)(i=r+n+1-e)<-o?i-=s*Math.round(i/s):i>=s&&(i-=s*Math.floor(i/s)),i<0?i=-1-i:i>=o&&(i=s-1-i),a+=t[i]*c[n];u[r]=a}return u},l.syncOrAsync=function(t,e,r){var n;function i(){return l.syncOrAsync(t,e,r)}for(;t.length;)if((n=(0,t.splice(0,1)[0])(e))&&n.then)return n.then(i).then(void 0,l.promiseError);return r&&r(e)},l.stripTrailingSlash=function(t){return\\\"/\\\"===t.substr(-1)?t.substr(0,t.length-1):t},l.noneOrAll=function(t,e,r){if(t){var n,i=!1,a=!0;for(n=0;n<r.length;n++)null!=t[r[n]]?i=!0:a=!1;if(i&&!a)for(n=0;n<r.length;n++)t[r[n]]=e[r[n]]}},l.mergeArray=function(t,e,r){if(l.isArrayOrTypedArray(t))for(var n=Math.min(t.length,e.length),i=0;i<n;i++)e[i][r]=t[i]},l.fillArray=function(t,e,r,n){if(n=n||l.identity,l.isArrayOrTypedArray(t))for(var i=0;i<e.length;i++)e[i][r]=n(t[i])},l.castOption=function(t,e,r,n){n=n||l.identity;var i=l.nestedProperty(t,r).get();return l.isArrayOrTypedArray(i)?Array.isArray(e)&&l.isArrayOrTypedArray(i[e[0]])?n(i[e[0]][e[1]]):n(i[e]):i},l.extractOption=function(t,e,r,n){if(r in t)return t[r];var i=l.nestedProperty(e,n).get();return Array.isArray(i)?void 0:i},l.tagSelected=function(t,e,r){var n,i,a=e.selectedpoints,o=e._indexToPoints;o&&(n=k(o));for(var s=0;s<a.length;s++){var c=a[s];if(l.isIndex(c)){var u=n?n[c]:c,f=r?r[u]:u;void 0!==(i=f)&&i<t.length&&(t[f].selected=1)}}},l.selIndices2selPoints=function(t){var e=t.selectedpoints,r=t._indexToPoints;if(r){for(var n=k(r),i=[],a=0;a<e.length;a++){var o=e[a];if(l.isIndex(o)){var s=n[o];l.isIndex(s)&&i.push(s)}}return i}return e},l.getTargetArray=function(t,e){var r=e.target;if(\\\"string\\\"==typeof r&&r){var n=l.nestedProperty(t,r).get();return!!Array.isArray(n)&&n}return!!Array.isArray(r)&&r},l.minExtend=function(t,e){var r={};\\\"object\\\"!=typeof e&&(e={});var n,i,a,o=Object.keys(t);for(n=0;n<o.length;n++)a=t[i=o[n]],\\\"_\\\"!==i.charAt(0)&&\\\"function\\\"!=typeof a&&(\\\"module\\\"===i?r[i]=a:Array.isArray(a)?r[i]=\\\"colorscale\\\"===i?a.slice():a.slice(0,3):r[i]=a&&\\\"object\\\"==typeof a?l.minExtend(t[i],e[i]):a);for(o=Object.keys(e),n=0;n<o.length;n++)\\\"object\\\"==typeof(a=e[i=o[n]])&&i in r&&\\\"object\\\"==typeof r[i]||(r[i]=a);return r},l.titleCase=function(t){return t.charAt(0).toUpperCase()+t.substr(1)},l.containsAny=function(t,e){for(var r=0;r<e.length;r++)if(-1!==t.indexOf(e[r]))return!0;return!1},l.isPlotDiv=function(t){var e=n.select(t);return e.node()instanceof HTMLElement&&e.size()&&e.classed(\\\"js-plotly-plot\\\")},l.removeElement=function(t){var e=t&&t.parentNode;e&&e.removeChild(t)},l.addStyleRule=function(t,e){l.addRelatedStyleRule(\\\"global\\\",t,e)},l.addRelatedStyleRule=function(t,e,r){var n=\\\"plotly.js-style-\\\"+t,i=document.getElementById(n);i||((i=document.createElement(\\\"style\\\")).setAttribute(\\\"id\\\",n),i.appendChild(document.createTextNode(\\\"\\\")),document.head.appendChild(i));var a=i.sheet;a.insertRule?a.insertRule(e+\\\"{\\\"+r+\\\"}\\\",0):a.addRule?a.addRule(e,r,0):l.warn(\\\"addStyleRule failed\\\")},l.deleteRelatedStyleRule=function(t){var e=\\\"plotly.js-style-\\\"+t,r=document.getElementById(e);r&&l.removeElement(r)},l.isIE=function(){return\\\"undefined\\\"!=typeof window.navigator.msSaveBlob},l.isD3Selection=function(t){return t&&\\\"function\\\"==typeof t.classed},l.ensureSingle=function(t,e,r,n){var i=t.select(e+(r?\\\".\\\"+r:\\\"\\\"));if(i.size())return i;var a=t.append(e);return r&&a.classed(r,!0),n&&a.call(n),a},l.ensureSingleById=function(t,e,r,n){var i=t.select(e+\\\"#\\\"+r);if(i.size())return i;var a=t.append(e).attr(\\\"id\\\",r);return n&&a.call(n),a},l.objectFromPath=function(t,e){for(var r,n=t.split(\\\".\\\"),i=r={},a=0;a<n.length;a++){var o=n[a],s=null,l=n[a].match(/(.*)\\\\[([0-9]+)\\\\]/);l?(o=l[1],s=l[2],r=r[o]=[],a===n.length-1?r[s]=e:r[s]={},r=r[s]):(a===n.length-1?r[o]=e:r[o]={},r=r[o])}return i};var T=/^([^\\\\[\\\\.]+)\\\\.(.+)?/,A=/^([^\\\\.]+)\\\\[([0-9]+)\\\\](\\\\.)?(.+)?/;l.expandObjectPaths=function(t){var e,r,n,i,a,o,s;if(\\\"object\\\"==typeof t&&!Array.isArray(t))for(r in t)t.hasOwnProperty(r)&&((e=r.match(T))?(i=t[r],n=e[1],delete t[r],t[n]=l.extendDeepNoArrays(t[n]||{},l.objectFromPath(r,l.expandObjectPaths(i))[n])):(e=r.match(A))?(i=t[r],n=e[1],a=parseInt(e[2]),delete t[r],t[n]=t[n]||[],\\\".\\\"===e[3]?(s=e[4],o=t[n][a]=t[n][a]||{},l.extendDeepNoArrays(o,l.objectFromPath(s,l.expandObjectPaths(i)))):t[n][a]=l.expandObjectPaths(i)):t[r]=l.expandObjectPaths(t[r]));return t},l.numSeparate=function(t,e,r){if(r||(r=!1),\\\"string\\\"!=typeof e||0===e.length)throw new Error(\\\"Separator string required for formatting!\\\");\\\"number\\\"==typeof t&&(t=String(t));var n=/(\\\\d+)(\\\\d{3})/,i=e.charAt(0),a=e.charAt(1),o=t.split(\\\".\\\"),s=o[0],l=o.length>1?i+o[1]:\\\"\\\";if(a&&(o.length>1||s.length>4||r))for(;n.test(s);)s=s.replace(n,\\\"$1\\\"+a+\\\"$2\\\");return s+l},l.TEMPLATE_STRING_REGEX=/%{([^\\\\s%{}:]*)(:[^}]*)?}/g;var M=/^\\\\w*$/;l.templateString=function(t,e){var r={};return t.replace(l.TEMPLATE_STRING_REGEX,function(t,n){return M.test(n)?e[n]||\\\"\\\":(r[n]=r[n]||l.nestedProperty(e,n).get,r[n]()||\\\"\\\")})};var S=/^:/,E=0;l.hovertemplateString=function(t,e,r){var i=arguments,a={};return t.replace(l.TEMPLATE_STRING_REGEX,function(t,o,s){var c,u,f;for(f=3;f<i.length;f++){if((c=i[f]).hasOwnProperty(o)){u=c[o];break}if(M.test(o)||(u=a[o]||l.nestedProperty(c,o).get())&&(a[o]=u),void 0!==u)break}(void 0===u&&(E<10&&(l.warn(\\\"Variable '\\\"+o+\\\"' in hovertemplate could not be found!\\\"),u=t),10===E&&l.warn(\\\"Too many hovertemplate warnings - additional warnings will be suppressed\\\"),E++),s)?u=(r?r.numberFormat:n.format)(s.replace(S,\\\"\\\"))(u):e.hasOwnProperty(o+\\\"Label\\\")&&(u=e[o+\\\"Label\\\"]);return u})};l.subplotSort=function(t,e){for(var r=Math.min(t.length,e.length)+1,n=0,i=0,a=0;a<r;a++){var o=t.charCodeAt(a)||0,s=e.charCodeAt(a)||0,l=o>=48&&o<=57,c=s>=48&&s<=57;if(l&&(n=10*n+o-48),c&&(i=10*i+s-48),!l||!c){if(n!==i)return n-i;if(o!==s)return o-s}}return i-n};var C=2e9;l.seedPseudoRandom=function(){C=2e9},l.pseudoRandom=function(){var t=C;return C=(69069*C+1)%4294967296,Math.abs(C-t)<429496729?l.pseudoRandom():C/4294967296},l.fillText=function(t,e,r){var n=Array.isArray(r)?function(t){r.push(t)}:function(t){r.text=t},i=l.extractOption(t,e,\\\"htx\\\",\\\"hovertext\\\");if(l.isValidTextValue(i))return n(i);var a=l.extractOption(t,e,\\\"tx\\\",\\\"text\\\");return l.isValidTextValue(a)?n(a):void 0},l.isValidTextValue=function(t){return t||0===t},l.formatPercent=function(t,e){e=e||0;for(var r=(Math.round(100*t*Math.pow(10,e))*Math.pow(.1,e)).toFixed(e)+\\\"%\\\",n=0;n<e;n++)-1!==r.indexOf(\\\".\\\")&&(r=(r=r.replace(\\\"0%\\\",\\\"%\\\")).replace(\\\".%\\\",\\\"%\\\"));return r}},{\\\"../constants/numerical\\\":680,\\\"./anchor_utils\\\":684,\\\"./angles\\\":685,\\\"./array\\\":686,\\\"./clean_number\\\":687,\\\"./clear_responsive\\\":689,\\\"./coerce\\\":690,\\\"./dates\\\":691,\\\"./extend\\\":693,\\\"./filter_unique\\\":694,\\\"./filter_visible\\\":695,\\\"./geometry2d\\\":698,\\\"./get_graph_div\\\":699,\\\"./identity\\\":702,\\\"./is_plain_object\\\":704,\\\"./keyed_container\\\":705,\\\"./localize\\\":706,\\\"./loggers\\\":707,\\\"./make_trace_groups\\\":708,\\\"./matrix\\\":709,\\\"./mod\\\":710,\\\"./nested_property\\\":711,\\\"./noop\\\":712,\\\"./notifier\\\":713,\\\"./push_unique\\\":717,\\\"./regex\\\":719,\\\"./relative_attr\\\":720,\\\"./relink_private\\\":721,\\\"./search\\\":722,\\\"./stats\\\":725,\\\"./throttle\\\":728,\\\"./to_log_range\\\":729,d3:157,\\\"fast-isnumeric\\\":224}],704:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){return window&&window.process&&window.process.versions?\\\"[object Object]\\\"===Object.prototype.toString.call(t):\\\"[object Object]\\\"===Object.prototype.toString.call(t)&&Object.getPrototypeOf(t)===Object.prototype}},{}],705:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./nested_property\\\"),i=/^\\\\w*$/;e.exports=function(t,e,r,a){var o,s,l;r=r||\\\"name\\\",a=a||\\\"value\\\";var c={};e&&e.length?(l=n(t,e),s=l.get()):s=t,e=e||\\\"\\\";var u={};if(s)for(o=0;o<s.length;o++)u[s[o][r]]=o;var f=i.test(a),h={set:function(t,e){var i=null===e?4:0;if(!s){if(!l||4===i)return;s=[],l.set(s)}var o=u[t];if(void 0===o){if(4===i)return;i|=3,o=s.length,u[t]=o}else e!==(f?s[o][a]:n(s[o],a).get())&&(i|=2);var p=s[o]=s[o]||{};return p[r]=t,f?p[a]=e:n(p,a).set(e),null!==e&&(i&=-5),c[o]=c[o]|i,h},get:function(t){if(s){var e=u[t];return void 0===e?void 0:f?s[e][a]:n(s[e],a).get()}},rename:function(t,e){var n=u[t];return void 0===n?h:(c[n]=1|c[n],u[e]=n,delete u[t],s[n][r]=e,h)},remove:function(t){var e=u[t];if(void 0===e)return h;var i=s[e];if(Object.keys(i).length>2)return c[e]=2|c[e],h.set(t,null);if(f){for(o=e;o<s.length;o++)c[o]=3|c[o];for(o=e;o<s.length;o++)u[s[o][r]]--;s.splice(e,1),delete u[t]}else n(i,a).set(null),c[e]=6|c[e];return h},constructUpdate:function(){for(var t,i,o={},l=Object.keys(c),u=0;u<l.length;u++)i=l[u],t=e+\\\"[\\\"+i+\\\"]\\\",s[i]?(1&c[i]&&(o[t+\\\".\\\"+r]=s[i][r]),2&c[i]&&(o[t+\\\".\\\"+a]=f?4&c[i]?null:s[i][a]:4&c[i]?null:n(s[i],a).get())):o[t]=null;return o}};return h}},{\\\"./nested_property\\\":711}],706:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../registry\\\");e.exports=function(t,e){for(var r=t._context.locale,i=0;i<2;i++){for(var a=t._context.locales,o=0;o<2;o++){var s=(a[r]||{}).dictionary;if(s){var l=s[e];if(l)return l}a=n.localeRegistry}var c=r.split(\\\"-\\\")[0];if(c===r)break;r=c}return e}},{\\\"../registry\\\":831}],707:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../plot_api/plot_config\\\").dfltConfig,i=e.exports={};function a(t,e){if(t&&t.apply)try{return void t.apply(console,e)}catch(t){}for(var r=0;r<e.length;r++)try{t(e[r])}catch(t){console.log(e[r])}}i.log=function(){if(n.logging>1){for(var t=[\\\"LOG:\\\"],e=0;e<arguments.length;e++)t.push(arguments[e]);a(console.trace||console.log,t)}},i.warn=function(){if(n.logging>0){for(var t=[\\\"WARN:\\\"],e=0;e<arguments.length;e++)t.push(arguments[e]);a(console.trace||console.log,t)}},i.error=function(){if(n.logging>0){for(var t=[\\\"ERROR:\\\"],e=0;e<arguments.length;e++)t.push(arguments[e]);a(console.error,t)}}},{\\\"../plot_api/plot_config\\\":739}],708:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){var n=t.selectAll(\\\"g.\\\"+r.replace(/\\\\s/g,\\\".\\\")).data(e,function(t){return t[0].trace.uid});return n.exit().remove(),n.enter().append(\\\"g\\\").attr(\\\"class\\\",r),n.order(),n}},{}],709:[function(t,e,r){\\\"use strict\\\";r.init2dArray=function(t,e){for(var r=new Array(t),n=0;n<t;n++)r[n]=new Array(e);return r},r.transposeRagged=function(t){var e,r,n=0,i=t.length;for(e=0;e<i;e++)n=Math.max(n,t[e].length);var a=new Array(n);for(e=0;e<n;e++)for(a[e]=new Array(i),r=0;r<i;r++)a[e][r]=t[r][e];return a},r.dot=function(t,e){if(!t.length||!e.length||t.length!==e.length)return null;var n,i,a=t.length;if(t[0].length)for(n=new Array(a),i=0;i<a;i++)n[i]=r.dot(t[i],e);else if(e[0].length){var o=r.transposeRagged(e);for(n=new Array(o.length),i=0;i<o.length;i++)n[i]=r.dot(t,o[i])}else for(n=0,i=0;i<a;i++)n+=t[i]*e[i];return n},r.translationMatrix=function(t,e){return[[1,0,t],[0,1,e],[0,0,1]]},r.rotationMatrix=function(t){var e=t*Math.PI/180;return[[Math.cos(e),-Math.sin(e),0],[Math.sin(e),Math.cos(e),0],[0,0,1]]},r.rotationXYMatrix=function(t,e,n){return r.dot(r.dot(r.translationMatrix(e,n),r.rotationMatrix(t)),r.translationMatrix(-e,-n))},r.apply2DTransform=function(t){return function(){var e=arguments;3===e.length&&(e=e[0]);var n=1===arguments.length?e[0]:[e[0],e[1]];return r.dot(t,[n[0],n[1],1]).slice(0,2)}},r.apply2DTransform2=function(t){var e=r.apply2DTransform(t);return function(t){return e(t.slice(0,2)).concat(e(t.slice(2,4)))}}},{}],710:[function(t,e,r){\\\"use strict\\\";e.exports={mod:function(t,e){var r=t%e;return r<0?r+e:r},modHalf:function(t,e){return Math.abs(t)>e/2?t-Math.round(t/e)*e:t}}},{}],711:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"./array\\\").isArrayOrTypedArray;e.exports=function(t,e){if(n(e))e=String(e);else if(\\\"string\\\"!=typeof e||\\\"[-1]\\\"===e.substr(e.length-4))throw\\\"bad property string\\\";for(var r,a,o,l=0,c=e.split(\\\".\\\");l<c.length;){if(r=String(c[l]).match(/^([^\\\\[\\\\]]*)((\\\\[\\\\-?[0-9]*\\\\])+)$/)){if(r[1])c[l]=r[1];else{if(0!==l)throw\\\"bad property string\\\";c.splice(0,1)}for(a=r[2].substr(1,r[2].length-2).split(\\\"][\\\"),o=0;o<a.length;o++)l++,c.splice(l,0,Number(a[o]))}l++}return\\\"object\\\"!=typeof t?function(t,e,r){return{set:function(){throw\\\"bad container\\\"},get:function(){},astr:e,parts:r,obj:t}}(t,e,c):{set:s(t,c,e),get:function t(e,r){return function(){var n,a,o,s,l,c=e;for(s=0;s<r.length-1;s++){if(-1===(n=r[s])){for(a=!0,o=[],l=0;l<c.length;l++)o[l]=t(c[l],r.slice(s+1))(),o[l]!==o[0]&&(a=!1);return a?o[0]:o}if(\\\"number\\\"==typeof n&&!i(c))return;if(\\\"object\\\"!=typeof(c=c[n])||null===c)return}if(\\\"object\\\"==typeof c&&null!==c&&null!==(o=c[r[s]]))return o}}(t,c),astr:e,parts:c,obj:t}};var a=/(^|\\\\.)args\\\\[/;function o(t,e){return void 0===t||null===t&&!e.match(a)}function s(t,e,r){return function(n){var a,s,f=t,h=\\\"\\\",p=[[t,h]],d=o(n,r);for(s=0;s<e.length-1;s++){if(\\\"number\\\"==typeof(a=e[s])&&!i(f))throw\\\"array index but container is not an array\\\";if(-1===a){if(d=!c(f,e.slice(s+1),n,r))break;return}if(!u(f,a,e[s+1],d))break;if(\\\"object\\\"!=typeof(f=f[a])||null===f)throw\\\"container is not an object\\\";h=l(h,a),p.push([f,h])}if(d){if(s===e.length-1&&(delete f[e[s]],Array.isArray(f)&&+e[s]==f.length-1))for(;f.length&&void 0===f[f.length-1];)f.pop()}else f[e[s]]=n}}function l(t,e){var r=e;return n(e)?r=\\\"[\\\"+e+\\\"]\\\":t&&(r=\\\".\\\"+e),t+r}function c(t,e,r,n){var a,l=i(r),c=!0,f=r,h=n.replace(\\\"-1\\\",0),p=!l&&o(r,h),d=e[0];for(a=0;a<t.length;a++)h=n.replace(\\\"-1\\\",a),l&&(p=o(f=r[a%r.length],h)),p&&(c=!1),u(t,a,d,p)&&s(t[a],e,n.replace(\\\"-1\\\",a))(f);return c}function u(t,e,r,n){if(void 0===t[e]){if(n)return!1;t[e]=\\\"number\\\"==typeof r?[]:{}}return!0}},{\\\"./array\\\":686,\\\"fast-isnumeric\\\":224}],712:[function(t,e,r){\\\"use strict\\\";e.exports=function(){}},{}],713:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"fast-isnumeric\\\"),a=[];e.exports=function(t,e){if(-1===a.indexOf(t)){a.push(t);var r=1e3;i(e)?r=e:\\\"long\\\"===e&&(r=3e3);var o=n.select(\\\"body\\\").selectAll(\\\".plotly-notifier\\\").data([0]);o.enter().append(\\\"div\\\").classed(\\\"plotly-notifier\\\",!0),o.selectAll(\\\".notifier-note\\\").data(a).enter().append(\\\"div\\\").classed(\\\"notifier-note\\\",!0).style(\\\"opacity\\\",0).each(function(t){var e=n.select(this);e.append(\\\"button\\\").classed(\\\"notifier-close\\\",!0).html(\\\"&times;\\\").on(\\\"click\\\",function(){e.transition().call(s)});for(var i=e.append(\\\"p\\\"),a=t.split(/<br\\\\s*\\\\/?>/g),o=0;o<a.length;o++)o&&i.append(\\\"br\\\"),i.append(\\\"span\\\").text(a[o]);e.transition().duration(700).style(\\\"opacity\\\",1).transition().delay(r).call(s)})}function s(t){t.duration(700).style(\\\"opacity\\\",0).each(\\\"end\\\",function(t){var e=a.indexOf(t);-1!==e&&a.splice(e,1),n.select(this).remove()})}}},{d3:157,\\\"fast-isnumeric\\\":224}],714:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./setcursor\\\"),i=\\\"data-savedcursor\\\";e.exports=function(t,e){var r=t.attr(i);if(e){if(!r){for(var a=(t.attr(\\\"class\\\")||\\\"\\\").split(\\\" \\\"),o=0;o<a.length;o++){var s=a[o];0===s.indexOf(\\\"cursor-\\\")&&t.attr(i,s.substr(7)).classed(s,!1)}t.attr(i)||t.attr(i,\\\"!!\\\")}n(t,e)}else r&&(t.attr(i,null),\\\"!!\\\"===r?n(t):n(t,r))}},{\\\"./setcursor\\\":723}],715:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./matrix\\\").dot,i=t(\\\"../constants/numerical\\\").BADNUM,a=e.exports={};a.tester=function(t){var e,r=t.slice(),n=r[0][0],a=n,o=r[0][1],s=o;for(r.push(r[0]),e=1;e<r.length;e++)n=Math.min(n,r[e][0]),a=Math.max(a,r[e][0]),o=Math.min(o,r[e][1]),s=Math.max(s,r[e][1]);var l,c=!1;5===r.length&&(r[0][0]===r[1][0]?r[2][0]===r[3][0]&&r[0][1]===r[3][1]&&r[1][1]===r[2][1]&&(c=!0,l=function(t){return t[0]===r[0][0]}):r[0][1]===r[1][1]&&r[2][1]===r[3][1]&&r[0][0]===r[3][0]&&r[1][0]===r[2][0]&&(c=!0,l=function(t){return t[1]===r[0][1]}));var u=!0,f=r[0];for(e=1;e<r.length;e++)if(f[0]!==r[e][0]||f[1]!==r[e][1]){u=!1;break}return{xmin:n,xmax:a,ymin:o,ymax:s,pts:r,contains:c?function(t,e){var r=t[0],c=t[1];return!(r===i||r<n||r>a||c===i||c<o||c>s||e&&l(t))}:function(t,e){var l=t[0],c=t[1];if(l===i||l<n||l>a||c===i||c<o||c>s)return!1;var u,f,h,p,d,g=r.length,v=r[0][0],m=r[0][1],y=0;for(u=1;u<g;u++)if(f=v,h=m,v=r[u][0],m=r[u][1],!(l<(p=Math.min(f,v))||l>Math.max(f,v)||c>Math.max(h,m)))if(c<Math.min(h,m))l!==p&&y++;else{if(c===(d=v===f?c:h+(l-f)*(m-h)/(v-f)))return 1!==u||!e;c<=d&&l!==p&&y++}return y%2==1},isRect:c,degenerate:u}},a.isSegmentBent=function(t,e,r,i){var a,o,s,l=t[e],c=[t[r][0]-l[0],t[r][1]-l[1]],u=n(c,c),f=Math.sqrt(u),h=[-c[1]/f,c[0]/f];for(a=e+1;a<r;a++)if(o=[t[a][0]-l[0],t[a][1]-l[1]],(s=n(o,c))<0||s>u||Math.abs(n(o,h))>i)return!0;return!1},a.filter=function(t,e){var r=[t[0]],n=0,i=0;function o(o){t.push(o);var s=r.length,l=n;r.splice(i+1);for(var c=l+1;c<t.length;c++)(c===t.length-1||a.isSegmentBent(t,l,c+1,e))&&(r.push(t[c]),r.length<s-2&&(n=c,i=r.length-1),l=c)}t.length>1&&o(t.pop());return{addPt:o,raw:t,filtered:r}}},{\\\"../constants/numerical\\\":680,\\\"./matrix\\\":709}],716:[function(t,e,r){(function(r){\\\"use strict\\\";var n=t(\\\"./show_no_webgl_msg\\\"),i=t(\\\"regl\\\");e.exports=function(t,e){var a=t._fullLayout,o=!0;return a._glcanvas.each(function(n){if(!n.regl&&(!n.pick||a._has(\\\"parcoords\\\"))){try{n.regl=i({canvas:this,attributes:{antialias:!n.pick,preserveDrawingBuffer:!0},pixelRatio:t._context.plotGlPixelRatio||r.devicePixelRatio,extensions:e||[]})}catch(t){o=!1}o&&this.addEventListener(\\\"webglcontextlost\\\",function(e){t&&t.emit&&t.emit(\\\"plotly_webglcontextlost\\\",{event:e,layer:n.key})},!1)}}),o||n({container:a._glcontainer.node()}),o}}).call(this,\\\"undefined\\\"!=typeof global?global:\\\"undefined\\\"!=typeof self?self:\\\"undefined\\\"!=typeof window?window:{})},{\\\"./show_no_webgl_msg\\\":724,regl:489}],717:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){if(e instanceof RegExp){for(var r=e.toString(),n=0;n<t.length;n++)if(t[n]instanceof RegExp&&t[n].toString()===r)return t;t.push(e)}else!e&&0!==e||-1!==t.indexOf(e)||t.push(e);return t}},{}],718:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../lib\\\"),i=t(\\\"../plot_api/plot_config\\\").dfltConfig;var a={add:function(t,e,r,n,a){var o,s;t.undoQueue=t.undoQueue||{index:0,queue:[],sequence:!1},s=t.undoQueue.index,t.autoplay?t.undoQueue.inSequence||(t.autoplay=!1):(!t.undoQueue.sequence||t.undoQueue.beginSequence?(o={undo:{calls:[],args:[]},redo:{calls:[],args:[]}},t.undoQueue.queue.splice(s,t.undoQueue.queue.length-s,o),t.undoQueue.index+=1):o=t.undoQueue.queue[s-1],t.undoQueue.beginSequence=!1,o&&(o.undo.calls.unshift(e),o.undo.args.unshift(r),o.redo.calls.push(n),o.redo.args.push(a)),t.undoQueue.queue.length>i.queueLength&&(t.undoQueue.queue.shift(),t.undoQueue.index--))},startSequence:function(t){t.undoQueue=t.undoQueue||{index:0,queue:[],sequence:!1},t.undoQueue.sequence=!0,t.undoQueue.beginSequence=!0},stopSequence:function(t){t.undoQueue=t.undoQueue||{index:0,queue:[],sequence:!1},t.undoQueue.sequence=!1,t.undoQueue.beginSequence=!1},undo:function(t){var e,r;if(t.framework&&t.framework.isPolar)t.framework.undo();else if(!(void 0===t.undoQueue||isNaN(t.undoQueue.index)||t.undoQueue.index<=0)){for(t.undoQueue.index--,e=t.undoQueue.queue[t.undoQueue.index],t.undoQueue.inSequence=!0,r=0;r<e.undo.calls.length;r++)a.plotDo(t,e.undo.calls[r],e.undo.args[r]);t.undoQueue.inSequence=!1,t.autoplay=!1}},redo:function(t){var e,r;if(t.framework&&t.framework.isPolar)t.framework.redo();else if(!(void 0===t.undoQueue||isNaN(t.undoQueue.index)||t.undoQueue.index>=t.undoQueue.queue.length)){for(e=t.undoQueue.queue[t.undoQueue.index],t.undoQueue.inSequence=!0,r=0;r<e.redo.calls.length;r++)a.plotDo(t,e.redo.calls[r],e.redo.args[r]);t.undoQueue.inSequence=!1,t.autoplay=!1,t.undoQueue.index++}}};a.plotDo=function(t,e,r){t.autoplay=!0,r=function(t,e){for(var r,i=[],a=0;a<e.length;a++)r=e[a],i[a]=r===t?r:\\\"object\\\"==typeof r?Array.isArray(r)?n.extendDeep([],r):n.extendDeepAll({},r):r;return i}(t,r),e.apply(null,r)},e.exports=a},{\\\"../lib\\\":703,\\\"../plot_api/plot_config\\\":739}],719:[function(t,e,r){\\\"use strict\\\";r.counter=function(t,e,r,n){var i=(e||\\\"\\\")+(r?\\\"\\\":\\\"$\\\"),a=!1===n?\\\"\\\":\\\"^\\\";return\\\"xy\\\"===t?new RegExp(a+\\\"x([2-9]|[1-9][0-9]+)?y([2-9]|[1-9][0-9]+)?\\\"+i):new RegExp(a+t+\\\"([2-9]|[1-9][0-9]+)?\\\"+i)}},{}],720:[function(t,e,r){\\\"use strict\\\";var n=/^(.*)(\\\\.[^\\\\.\\\\[\\\\]]+|\\\\[\\\\d\\\\])$/,i=/^[^\\\\.\\\\[\\\\]]+$/;e.exports=function(t,e){for(;e;){var r=t.match(n);if(r)t=r[1];else{if(!t.match(i))throw new Error(\\\"bad relativeAttr call:\\\"+[t,e]);t=\\\"\\\"}if(\\\"^\\\"!==e.charAt(0))break;e=e.slice(1)}return t&&\\\"[\\\"!==e.charAt(0)?t+\\\".\\\"+e:t+e}},{}],721:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./array\\\").isArrayOrTypedArray,i=t(\\\"./is_plain_object\\\");e.exports=function t(e,r){for(var a in r){var o=r[a],s=e[a];if(s!==o)if(\\\"_\\\"===a.charAt(0)||\\\"function\\\"==typeof o){if(a in e)continue;e[a]=o}else if(n(o)&&n(s)&&i(o[0])){if(\\\"customdata\\\"===a||\\\"ids\\\"===a)continue;for(var l=Math.min(o.length,s.length),c=0;c<l;c++)s[c]!==o[c]&&i(o[c])&&i(s[c])&&t(s[c],o[c])}else i(o)&&i(s)&&(t(s,o),Object.keys(s).length||delete e[a])}}},{\\\"./array\\\":686,\\\"./is_plain_object\\\":704}],722:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"./loggers\\\"),a=t(\\\"./identity\\\");function o(t,e){return t<e}function s(t,e){return t<=e}function l(t,e){return t>e}function c(t,e){return t>=e}r.findBin=function(t,e,r){if(n(e.start))return r?Math.ceil((t-e.start)/e.size-1e-9)-1:Math.floor((t-e.start)/e.size+1e-9);var a,u,f=0,h=e.length,p=0,d=h>1?(e[h-1]-e[0])/(h-1):1;for(u=d>=0?r?o:s:r?c:l,t+=1e-9*d*(r?-1:1)*(d>=0?1:-1);f<h&&p++<100;)u(e[a=Math.floor((f+h)/2)],t)?f=a+1:h=a;return p>90&&i.log(\\\"Long binary search...\\\"),f-1},r.sorterAsc=function(t,e){return t-e},r.sorterDes=function(t,e){return e-t},r.distinctVals=function(t){var e=t.slice();e.sort(r.sorterAsc);for(var n=e.length-1,i=e[n]-e[0]||1,a=i/(n||1)/1e4,o=[e[0]],s=0;s<n;s++)e[s+1]>e[s]+a&&(i=Math.min(i,e[s+1]-e[s]),o.push(e[s+1]));return{vals:o,minDiff:i}},r.roundUp=function(t,e,r){for(var n,i=0,a=e.length-1,o=0,s=r?0:1,l=r?1:0,c=r?Math.ceil:Math.floor;i<a&&o++<100;)e[n=c((i+a)/2)]<=t?i=n+s:a=n-l;return e[i]},r.sort=function(t,e){for(var r=0,n=0,i=1;i<t.length;i++){var a=e(t[i],t[i-1]);if(a<0?r=1:a>0&&(n=1),r&&n)return t.sort(e)}return n?t:t.reverse()},r.findIndexOfMin=function(t,e){e=e||a;for(var r,n=1/0,i=0;i<t.length;i++){var o=e(t[i]);o<n&&(n=o,r=i)}return r}},{\\\"./identity\\\":702,\\\"./loggers\\\":707,\\\"fast-isnumeric\\\":224}],723:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){(t.attr(\\\"class\\\")||\\\"\\\").split(\\\" \\\").forEach(function(e){0===e.indexOf(\\\"cursor-\\\")&&t.classed(e,!1)}),e&&t.classed(\\\"cursor-\\\"+e,!0)}},{}],724:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../components/color\\\"),i=function(){};e.exports=function(t){for(var e in t)\\\"function\\\"==typeof t[e]&&(t[e]=i);t.destroy=function(){t.container.parentNode.removeChild(t.container)};var r=document.createElement(\\\"div\\\");r.className=\\\"no-webgl\\\",r.style.cursor=\\\"pointer\\\",r.style.fontSize=\\\"24px\\\",r.style.color=n.defaults[0],r.style.position=\\\"absolute\\\",r.style.left=r.style.top=\\\"0px\\\",r.style.width=r.style.height=\\\"100%\\\",r.style[\\\"background-color\\\"]=n.lightLine,r.style[\\\"z-index\\\"]=30;var a=document.createElement(\\\"p\\\");return a.textContent=\\\"WebGL is not supported by your browser - visit https://get.webgl.org for more info\\\",a.style.position=\\\"relative\\\",a.style.top=\\\"50%\\\",a.style.left=\\\"50%\\\",a.style.height=\\\"30%\\\",a.style.width=\\\"50%\\\",a.style.margin=\\\"-15% 0 0 -25%\\\",r.appendChild(a),t.container.appendChild(r),t.container.style.background=\\\"#FFFFFF\\\",t.container.onclick=function(){window.open(\\\"https://get.webgl.org\\\")},!1}},{\\\"../components/color\\\":580}],725:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"./array\\\").isArrayOrTypedArray;r.aggNums=function(t,e,a,o){var s,l;if((!o||o>a.length)&&(o=a.length),n(e)||(e=!1),i(a[0])){for(l=new Array(o),s=0;s<o;s++)l[s]=r.aggNums(t,e,a[s]);a=l}for(s=0;s<o;s++)n(e)?n(a[s])&&(e=t(+e,+a[s])):e=a[s];return e},r.len=function(t){return r.aggNums(function(t){return t+1},0,t)},r.mean=function(t,e){return e||(e=r.len(t)),r.aggNums(function(t,e){return t+e},0,t)/e},r.midRange=function(t){if(void 0!==t&&0!==t.length)return(r.aggNums(Math.max,null,t)+r.aggNums(Math.min,null,t))/2},r.variance=function(t,e,i){return e||(e=r.len(t)),n(i)||(i=r.mean(t,e)),r.aggNums(function(t,e){return t+Math.pow(e-i,2)},0,t)/e},r.stdev=function(t,e,n){return Math.sqrt(r.variance(t,e,n))},r.median=function(t){var e=t.slice().sort();return r.interp(e,.5)},r.interp=function(t,e){if(!n(e))throw\\\"n should be a finite number\\\";if((e=e*t.length-.5)<0)return t[0];if(e>t.length-1)return t[t.length-1];var r=e%1;return r*t[Math.ceil(e)]+(1-r)*t[Math.floor(e)]}},{\\\"./array\\\":686,\\\"fast-isnumeric\\\":224}],726:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"color-normalize\\\");e.exports=function(t){return t?n(t):[0,0,0,1]}},{\\\"color-normalize\\\":113}],727:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../lib\\\"),a=t(\\\"../constants/xmlns_namespaces\\\"),o=t(\\\"../constants/alignment\\\").LINE_SPACING;function s(t,e){return t.node().getBoundingClientRect()[e]}var l=/([^$]*)([$]+[^$]*[$]+)([^$]*)/;r.convertToTspans=function(t,e,M){var S=t.text(),C=!t.attr(\\\"data-notex\\\")&&\\\"undefined\\\"!=typeof MathJax&&S.match(l),L=n.select(t.node().parentNode);if(!L.empty()){var z=t.attr(\\\"class\\\")?t.attr(\\\"class\\\").split(\\\" \\\")[0]:\\\"text\\\";return z+=\\\"-math\\\",L.selectAll(\\\"svg.\\\"+z).remove(),L.selectAll(\\\"g.\\\"+z+\\\"-group\\\").remove(),t.style(\\\"display\\\",null).attr({\\\"data-unformatted\\\":S,\\\"data-math\\\":\\\"N\\\"}),C?(e&&e._promises||[]).push(new Promise(function(e){t.style(\\\"display\\\",\\\"none\\\");var r=parseInt(t.node().style.fontSize,10),a={fontSize:r};!function(t,e,r){var a,o,s,l;MathJax.Hub.Queue(function(){return o=i.extendDeepAll({},MathJax.Hub.config),s=MathJax.Hub.processSectionDelay,void 0!==MathJax.Hub.processSectionDelay&&(MathJax.Hub.processSectionDelay=0),MathJax.Hub.Config({messageStyle:\\\"none\\\",tex2jax:{inlineMath:[[\\\"$\\\",\\\"$\\\"],[\\\"\\\\\\\\(\\\",\\\"\\\\\\\\)\\\"]]},displayAlign:\\\"left\\\"})},function(){if(\\\"SVG\\\"!==(a=MathJax.Hub.config.menuSettings.renderer))return MathJax.Hub.setRenderer(\\\"SVG\\\")},function(){var r=\\\"math-output-\\\"+i.randstr({},64);return l=n.select(\\\"body\\\").append(\\\"div\\\").attr({id:r}).style({visibility:\\\"hidden\\\",position:\\\"absolute\\\"}).style({\\\"font-size\\\":e.fontSize+\\\"px\\\"}).text(t.replace(c,\\\"\\\\\\\\lt \\\").replace(u,\\\"\\\\\\\\gt \\\")),MathJax.Hub.Typeset(l.node())},function(){var e=n.select(\\\"body\\\").select(\\\"#MathJax_SVG_glyphs\\\");if(l.select(\\\".MathJax_SVG\\\").empty()||!l.select(\\\"svg\\\").node())i.log(\\\"There was an error in the tex syntax.\\\",t),r();else{var o=l.select(\\\"svg\\\").node().getBoundingClientRect();r(l.select(\\\".MathJax_SVG\\\"),e,o)}if(l.remove(),\\\"SVG\\\"!==a)return MathJax.Hub.setRenderer(a)},function(){return void 0!==s&&(MathJax.Hub.processSectionDelay=s),MathJax.Hub.Config(o)})}(C[2],a,function(n,i,a){L.selectAll(\\\"svg.\\\"+z).remove(),L.selectAll(\\\"g.\\\"+z+\\\"-group\\\").remove();var o=n&&n.select(\\\"svg\\\");if(!o||!o.node())return O(),void e();var l=L.append(\\\"g\\\").classed(z+\\\"-group\\\",!0).attr({\\\"pointer-events\\\":\\\"none\\\",\\\"data-unformatted\\\":S,\\\"data-math\\\":\\\"Y\\\"});l.node().appendChild(o.node()),i&&i.node()&&o.node().insertBefore(i.node().cloneNode(!0),o.node().firstChild),o.attr({class:z,height:a.height,preserveAspectRatio:\\\"xMinYMin meet\\\"}).style({overflow:\\\"visible\\\",\\\"pointer-events\\\":\\\"none\\\"});var c=t.node().style.fill||\\\"black\\\",u=o.select(\\\"g\\\");u.attr({fill:c,stroke:c});var f=s(u,\\\"width\\\"),h=s(u,\\\"height\\\"),p=+t.attr(\\\"x\\\")-f*{start:0,middle:.5,end:1}[t.attr(\\\"text-anchor\\\")||\\\"start\\\"],d=-(r||s(t,\\\"height\\\"))/4;\\\"y\\\"===z[0]?(l.attr({transform:\\\"rotate(\\\"+[-90,+t.attr(\\\"x\\\"),+t.attr(\\\"y\\\")]+\\\") translate(\\\"+[-f/2,d-h/2]+\\\")\\\"}),o.attr({x:+t.attr(\\\"x\\\"),y:+t.attr(\\\"y\\\")})):\\\"l\\\"===z[0]?o.attr({x:t.attr(\\\"x\\\"),y:d-h/2}):\\\"a\\\"===z[0]&&0!==z.indexOf(\\\"atitle\\\")?o.attr({x:0,y:d}):o.attr({x:p,y:+t.attr(\\\"y\\\")+d-h/2}),M&&M.call(t,l),e(l)})})):O(),t}function O(){L.empty()||(z=t.attr(\\\"class\\\")+\\\"-math\\\",L.select(\\\"svg.\\\"+z).remove()),t.text(\\\"\\\").style(\\\"white-space\\\",\\\"pre\\\"),function(t,e){e=e.replace(v,\\\" \\\");var r,s=!1,l=[],c=-1;function u(){c++;var e=document.createElementNS(a.svg,\\\"tspan\\\");n.select(e).attr({class:\\\"line\\\",dy:c*o+\\\"em\\\"}),t.appendChild(e),r=e;var i=l;if(l=[{node:e}],i.length>1)for(var s=1;s<i.length;s++)M(i[s])}function M(t){var e,i=t.type,o={};if(\\\"a\\\"===i){e=\\\"a\\\";var s=t.target,c=t.href,u=t.popup;c&&(o={\\\"xlink:xlink:show\\\":\\\"_blank\\\"===s||\\\"_\\\"!==s.charAt(0)?\\\"new\\\":\\\"replace\\\",target:s,\\\"xlink:xlink:href\\\":c},u&&(o.onclick='window.open(this.href.baseVal,this.target.baseVal,\\\"'+u+'\\\");return false;'))}else e=\\\"tspan\\\";t.style&&(o.style=t.style);var f=document.createElementNS(a.svg,e);if(\\\"sup\\\"===i||\\\"sub\\\"===i){S(r,d),r.appendChild(f);var g=document.createElementNS(a.svg,\\\"tspan\\\");S(g,d),n.select(g).attr(\\\"dy\\\",p[i]),o.dy=h[i],r.appendChild(f),r.appendChild(g)}else r.appendChild(f);n.select(f).attr(o),r=t.node=f,l.push(t)}function S(t,e){t.appendChild(document.createTextNode(e))}function C(t){if(1!==l.length){var n=l.pop();t!==n.type&&i.log(\\\"Start tag <\\\"+n.type+\\\"> doesnt match end tag <\\\"+t+\\\">. Pretending it did match.\\\",e),r=l[l.length-1].node}else i.log(\\\"Ignoring unexpected end tag </\\\"+t+\\\">.\\\",e)}x.test(e)?u():(r=t,l=[{node:t}]);for(var L=e.split(m),z=0;z<L.length;z++){var O=L[z],I=O.match(y),D=I&&I[2].toLowerCase(),P=f[D];if(\\\"br\\\"===D)u();else if(void 0===P)S(r,E(O));else if(I[1])C(D);else{var R=I[4],F={type:D},B=T(R,b);if(B?(B=B.replace(A,\\\"$1 fill:\\\"),P&&(B+=\\\";\\\"+P)):P&&(B=P),B&&(F.style=B),\\\"a\\\"===D){s=!0;var N=T(R,_);if(N){var j=document.createElement(\\\"a\\\");j.href=N,-1!==g.indexOf(j.protocol)&&(F.href=encodeURI(decodeURI(N)),F.target=T(R,w)||\\\"_blank\\\",F.popup=T(R,k))}}M(F)}}return s}(t.node(),S)&&t.style(\\\"pointer-events\\\",\\\"all\\\"),r.positionText(t),M&&M.call(t)}};var c=/(<|&lt;|&#60;)/g,u=/(>|&gt;|&#62;)/g;var f={sup:\\\"font-size:70%\\\",sub:\\\"font-size:70%\\\",b:\\\"font-weight:bold\\\",i:\\\"font-style:italic\\\",a:\\\"cursor:pointer\\\",span:\\\"\\\",em:\\\"font-style:italic;font-weight:bold\\\"},h={sub:\\\"0.3em\\\",sup:\\\"-0.6em\\\"},p={sub:\\\"-0.21em\\\",sup:\\\"0.42em\\\"},d=\\\"\\\\u200b\\\",g=[\\\"http:\\\",\\\"https:\\\",\\\"mailto:\\\",\\\"\\\",void 0,\\\":\\\"],v=/(\\\\r\\\\n?|\\\\n)/g,m=/(<[^<>]*>)/,y=/<(\\\\/?)([^ >]*)(\\\\s+(.*))?>/i,x=/<br(\\\\s+.*)?>/i,b=/(^|[\\\\s\\\"'])style\\\\s*=\\\\s*(\\\"([^\\\"]*);?\\\"|'([^']*);?')/i,_=/(^|[\\\\s\\\"'])href\\\\s*=\\\\s*(\\\"([^\\\"]*)\\\"|'([^']*)')/i,w=/(^|[\\\\s\\\"'])target\\\\s*=\\\\s*(\\\"([^\\\"\\\\s]*)\\\"|'([^'\\\\s]*)')/i,k=/(^|[\\\\s\\\"'])popup\\\\s*=\\\\s*(\\\"([\\\\w=,]*)\\\"|'([\\\\w=,]*)')/i;function T(t,e){if(!t)return null;var r=t.match(e),n=r&&(r[3]||r[4]);return n&&E(n)}var A=/(^|;)\\\\s*color:/;r.plainText=function(t,e){for(var r=void 0!==(e=e||{}).len&&-1!==e.len?e.len:1/0,n=void 0!==e.allowedTags?e.allowedTags:[\\\"br\\\"],i=\\\"...\\\".length,a=t.split(m),o=[],s=\\\"\\\",l=0,c=0;c<a.length;c++){var u=a[c],f=u.match(y),h=f&&f[2].toLowerCase();if(h)-1!==n.indexOf(h)&&(o.push(u),s=h);else{var p=u.length;if(l+p<r)o.push(u),l+=p;else if(l<r){var d=r-l;s&&(\\\"br\\\"!==s||d<=i||p<=i)&&o.pop(),r>i?o.push(u.substr(0,d-i)+\\\"...\\\"):o.push(u.substr(0,d));break}s=\\\"\\\"}}return o.join(\\\"\\\")};var M={mu:\\\"\\\\u03bc\\\",amp:\\\"&\\\",lt:\\\"<\\\",gt:\\\">\\\",nbsp:\\\"\\\\xa0\\\",times:\\\"\\\\xd7\\\",plusmn:\\\"\\\\xb1\\\",deg:\\\"\\\\xb0\\\"},S=/&(#\\\\d+|#x[\\\\da-fA-F]+|[a-z]+);/g;function E(t){return t.replace(S,function(t,e){return(\\\"#\\\"===e.charAt(0)?function(t){if(t>1114111)return;var e=String.fromCodePoint;if(e)return e(t);var r=String.fromCharCode;return t<=65535?r(t):r(55232+(t>>10),t%1024+56320)}(\\\"x\\\"===e.charAt(1)?parseInt(e.substr(2),16):parseInt(e.substr(1),10)):M[e])||t})}function C(t,e,r){var n,i,a,o=r.horizontalAlign,s=r.verticalAlign||\\\"top\\\",l=t.node().getBoundingClientRect(),c=e.node().getBoundingClientRect();return i=\\\"bottom\\\"===s?function(){return l.bottom-n.height}:\\\"middle\\\"===s?function(){return l.top+(l.height-n.height)/2}:function(){return l.top},a=\\\"right\\\"===o?function(){return l.right-n.width}:\\\"center\\\"===o?function(){return l.left+(l.width-n.width)/2}:function(){return l.left},function(){return n=this.node().getBoundingClientRect(),this.style({top:i()-c.top+\\\"px\\\",left:a()-c.left+\\\"px\\\",\\\"z-index\\\":1e3}),this}}r.convertEntities=E,r.lineCount=function(t){return t.selectAll(\\\"tspan.line\\\").size()||1},r.positionText=function(t,e,r){return t.each(function(){var t=n.select(this);function i(e,r){return void 0===r?null===(r=t.attr(e))&&(t.attr(e,0),r=0):t.attr(e,r),r}var a=i(\\\"x\\\",e),o=i(\\\"y\\\",r);\\\"text\\\"===this.nodeName&&t.selectAll(\\\"tspan.line\\\").attr({x:a,y:o})})},r.makeEditable=function(t,e){var r=e.gd,i=e.delegate,a=n.dispatch(\\\"edit\\\",\\\"input\\\",\\\"cancel\\\"),o=i||t;if(t.style({\\\"pointer-events\\\":i?\\\"none\\\":\\\"all\\\"}),1!==t.size())throw new Error(\\\"boo\\\");function s(){!function(){var i=n.select(r).select(\\\".svg-container\\\"),o=i.append(\\\"div\\\"),s=t.node().style,c=parseFloat(s.fontSize||12),u=e.text;void 0===u&&(u=t.attr(\\\"data-unformatted\\\"));o.classed(\\\"plugin-editable editable\\\",!0).style({position:\\\"absolute\\\",\\\"font-family\\\":s.fontFamily||\\\"Arial\\\",\\\"font-size\\\":c,color:e.fill||s.fill||\\\"black\\\",opacity:1,\\\"background-color\\\":e.background||\\\"transparent\\\",outline:\\\"#ffffff33 1px solid\\\",margin:[-c/8+1,0,0,-1].join(\\\"px \\\")+\\\"px\\\",padding:\\\"0\\\",\\\"box-sizing\\\":\\\"border-box\\\"}).attr({contenteditable:!0}).text(u).call(C(t,i,e)).on(\\\"blur\\\",function(){r._editing=!1,t.text(this.textContent).style({opacity:1});var e,i=n.select(this).attr(\\\"class\\\");(e=i?\\\".\\\"+i.split(\\\" \\\")[0]+\\\"-math-group\\\":\\\"[class*=-math-group]\\\")&&n.select(t.node().parentNode).select(e).style({opacity:0});var o=this.textContent;n.select(this).transition().duration(0).remove(),n.select(document).on(\\\"mouseup\\\",null),a.edit.call(t,o)}).on(\\\"focus\\\",function(){var t=this;r._editing=!0,n.select(document).on(\\\"mouseup\\\",function(){if(n.event.target===t)return!1;document.activeElement===o.node()&&o.node().blur()})}).on(\\\"keyup\\\",function(){27===n.event.which?(r._editing=!1,t.style({opacity:1}),n.select(this).style({opacity:0}).on(\\\"blur\\\",function(){return!1}).transition().remove(),a.cancel.call(t,this.textContent)):(a.input.call(t,this.textContent),n.select(this).call(C(t,i,e)))}).on(\\\"keydown\\\",function(){13===n.event.which&&this.blur()}).call(l)}(),t.style({opacity:0});var i,s=o.attr(\\\"class\\\");(i=s?\\\".\\\"+s.split(\\\" \\\")[0]+\\\"-math-group\\\":\\\"[class*=-math-group]\\\")&&n.select(t.node().parentNode).select(i).style({opacity:0})}function l(t){var e=t.node(),r=document.createRange();r.selectNodeContents(e);var n=window.getSelection();n.removeAllRanges(),n.addRange(r),e.focus()}return e.immediate?s():o.on(\\\"click\\\",s),n.rebind(t,a,\\\"on\\\")}},{\\\"../constants/alignment\\\":675,\\\"../constants/xmlns_namespaces\\\":681,\\\"../lib\\\":703,d3:157}],728:[function(t,e,r){\\\"use strict\\\";var n={};function i(t){t&&null!==t.timer&&(clearTimeout(t.timer),t.timer=null)}r.throttle=function(t,e,r){var a=n[t],o=Date.now();if(!a){for(var s in n)n[s].ts<o-6e4&&delete n[s];a=n[t]={ts:0,timer:null}}function l(){r(),a.ts=Date.now(),a.onDone&&(a.onDone(),a.onDone=null)}i(a),o>a.ts+e?l():a.timer=setTimeout(function(){l(),a.timer=null},e)},r.done=function(t){var e=n[t];return e&&e.timer?new Promise(function(t){var r=e.onDone;e.onDone=function(){r&&r(),t(),e.onDone=null}}):Promise.resolve()},r.clear=function(t){if(t)i(n[t]),delete n[t];else for(var e in n)r.clear(e)}},{}],729:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\");e.exports=function(t,e){if(t>0)return Math.log(t)/Math.LN10;var r=Math.log(Math.min(e[0],e[1]))/Math.LN10;return n(r)||(r=Math.log(Math.max(e[0],e[1]))/Math.LN10-6),r}},{\\\"fast-isnumeric\\\":224}],730:[function(t,e,r){\\\"use strict\\\";var n=e.exports={},i=t(\\\"../plots/geo/constants\\\").locationmodeToLayer,a=t(\\\"topojson-client\\\").feature;n.getTopojsonName=function(t){return[t.scope.replace(/ /g,\\\"-\\\"),\\\"_\\\",t.resolution.toString(),\\\"m\\\"].join(\\\"\\\")},n.getTopojsonPath=function(t,e){return t+e+\\\".json\\\"},n.getTopojsonFeatures=function(t,e){var r=i[t.locationmode],n=e.objects[r];return a(e,n).features}},{\\\"../plots/geo/constants\\\":779,\\\"topojson-client\\\":527}],731:[function(t,e,r){\\\"use strict\\\";e.exports={moduleType:\\\"locale\\\",name:\\\"en-US\\\",dictionary:{\\\"Click to enter Colorscale title\\\":\\\"Click to enter Colorscale title\\\"},format:{date:\\\"%m/%d/%Y\\\"}}},{}],732:[function(t,e,r){\\\"use strict\\\";e.exports={moduleType:\\\"locale\\\",name:\\\"en\\\",dictionary:{\\\"Click to enter Colorscale title\\\":\\\"Click to enter Colourscale title\\\"},format:{days:[\\\"Sunday\\\",\\\"Monday\\\",\\\"Tuesday\\\",\\\"Wednesday\\\",\\\"Thursday\\\",\\\"Friday\\\",\\\"Saturday\\\"],shortDays:[\\\"Sun\\\",\\\"Mon\\\",\\\"Tue\\\",\\\"Wed\\\",\\\"Thu\\\",\\\"Fri\\\",\\\"Sat\\\"],months:[\\\"January\\\",\\\"February\\\",\\\"March\\\",\\\"April\\\",\\\"May\\\",\\\"June\\\",\\\"July\\\",\\\"August\\\",\\\"September\\\",\\\"October\\\",\\\"November\\\",\\\"December\\\"],shortMonths:[\\\"Jan\\\",\\\"Feb\\\",\\\"Mar\\\",\\\"Apr\\\",\\\"May\\\",\\\"Jun\\\",\\\"Jul\\\",\\\"Aug\\\",\\\"Sep\\\",\\\"Oct\\\",\\\"Nov\\\",\\\"Dec\\\"],periods:[\\\"AM\\\",\\\"PM\\\"],dateTime:\\\"%a %b %e %X %Y\\\",date:\\\"%d/%m/%Y\\\",time:\\\"%H:%M:%S\\\",decimal:\\\".\\\",thousands:\\\",\\\",grouping:[3],currency:[\\\"$\\\",\\\"\\\"],year:\\\"%Y\\\",month:\\\"%b %Y\\\",dayMonth:\\\"%b %-d\\\",dayMonthYear:\\\"%b %-d, %Y\\\"}}},{}],733:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../registry\\\");e.exports=function(t){for(var e,r,i=n.layoutArrayContainers,a=n.layoutArrayRegexes,o=t.split(\\\"[\\\")[0],s=0;s<a.length;s++)if((r=t.match(a[s]))&&0===r.index){e=r[0];break}if(e||(e=i[i.indexOf(o)]),!e)return!1;var l=t.substr(e.length);return l?!!(r=l.match(/^\\\\[(0|[1-9][0-9]*)\\\\](\\\\.(.+))?$/))&&{array:e,index:Number(r[1]),property:r[3]||\\\"\\\"}:{array:e,index:\\\"\\\",property:\\\"\\\"}}},{\\\"../registry\\\":831}],734:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../lib\\\"),i=n.extendFlat,a=n.isPlainObject,o={valType:\\\"flaglist\\\",extras:[\\\"none\\\"],flags:[\\\"calc\\\",\\\"clearAxisTypes\\\",\\\"plot\\\",\\\"style\\\",\\\"markerSize\\\",\\\"colorbars\\\"]},s={valType:\\\"flaglist\\\",extras:[\\\"none\\\"],flags:[\\\"calc\\\",\\\"plot\\\",\\\"legend\\\",\\\"ticks\\\",\\\"axrange\\\",\\\"layoutstyle\\\",\\\"modebar\\\",\\\"camera\\\",\\\"arraydraw\\\",\\\"colorbars\\\"]},l=o.flags.slice().concat([\\\"fullReplot\\\"]),c=s.flags.slice().concat(\\\"layoutReplot\\\");function u(t){for(var e={},r=0;r<t.length;r++)e[t[r]]=!1;return e}function f(t,e,r){var n=i({},t);for(var o in n){var s=n[o];a(s)&&(n[o]=h(s,e,r,o))}return\\\"from-root\\\"===r&&(n.editType=e),n}function h(t,e,r,n){if(t.valType){var a=i({},t);if(a.editType=e,Array.isArray(t.items)){a.items=new Array(t.items.length);for(var o=0;o<t.items.length;o++)a.items[o]=h(t.items[o],e,\\\"from-root\\\")}return a}return f(t,e,\\\"_\\\"===n.charAt(0)?\\\"nested\\\":\\\"from-root\\\")}e.exports={traces:o,layout:s,traceFlags:function(){return u(l)},layoutFlags:function(){return u(c)},update:function(t,e){var r=e.editType;if(r&&\\\"none\\\"!==r)for(var n=r.split(\\\"+\\\"),i=0;i<n.length;i++)t[n[i]]=!0},overrideAll:f}},{\\\"../lib\\\":703}],735:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"gl-mat4/fromQuat\\\"),a=t(\\\"../registry\\\"),o=t(\\\"../lib\\\"),s=t(\\\"../plots/plots\\\"),l=t(\\\"../plots/cartesian/axis_ids\\\"),c=t(\\\"../components/color\\\"),u=l.cleanId,f=l.getFromTrace,h=a.traceIs;function p(t,e){var r=t[e],n=e.charAt(0);r&&\\\"paper\\\"!==r&&(t[e]=u(r,n))}function d(t){function e(e,r){var n=t[e],i=t.title&&t.title[r];n&&!i&&(t.title||(t.title={}),t.title[r]=t[e],delete t[e])}t&&(\\\"string\\\"!=typeof t.title&&\\\"number\\\"!=typeof t.title||(t.title={text:t.title}),e(\\\"titlefont\\\",\\\"font\\\"),e(\\\"titleposition\\\",\\\"position\\\"),e(\\\"titleside\\\",\\\"side\\\"),e(\\\"titleoffset\\\",\\\"offset\\\"))}function g(t){if(!o.isPlainObject(t))return!1;var e=t.name;return delete t.name,delete t.showlegend,(\\\"string\\\"==typeof e||\\\"number\\\"==typeof e)&&String(e)}function v(t,e,r,n){if(r&&!n)return t;if(n&&!r)return e;if(!t.trim())return e;if(!e.trim())return t;var i,a=Math.min(t.length,e.length);for(i=0;i<a&&t.charAt(i)===e.charAt(i);i++);return t.substr(0,i).trim()}function m(t){var e=\\\"middle\\\",r=\\\"center\\\";return\\\"string\\\"==typeof t&&(-1!==t.indexOf(\\\"top\\\")?e=\\\"top\\\":-1!==t.indexOf(\\\"bottom\\\")&&(e=\\\"bottom\\\"),-1!==t.indexOf(\\\"left\\\")?r=\\\"left\\\":-1!==t.indexOf(\\\"right\\\")&&(r=\\\"right\\\")),e+\\\" \\\"+r}function y(t,e){return e in t&&\\\"object\\\"==typeof t[e]&&0===Object.keys(t[e]).length}r.clearPromiseQueue=function(t){Array.isArray(t._promises)&&t._promises.length>0&&o.log(\\\"Clearing previous rejected promises from queue.\\\"),t._promises=[]},r.cleanLayout=function(t){var e,n;t||(t={}),t.xaxis1&&(t.xaxis||(t.xaxis=t.xaxis1),delete t.xaxis1),t.yaxis1&&(t.yaxis||(t.yaxis=t.yaxis1),delete t.yaxis1),t.scene1&&(t.scene||(t.scene=t.scene1),delete t.scene1);var a=(s.subplotsRegistry.cartesian||{}).attrRegex,l=(s.subplotsRegistry.polar||{}).attrRegex,f=(s.subplotsRegistry.ternary||{}).attrRegex,h=(s.subplotsRegistry.gl3d||{}).attrRegex,g=Object.keys(t);for(e=0;e<g.length;e++){var v=g[e];if(a&&a.test(v)){var m=t[v];m.anchor&&\\\"free\\\"!==m.anchor&&(m.anchor=u(m.anchor)),m.overlaying&&(m.overlaying=u(m.overlaying)),m.type||(m.isdate?m.type=\\\"date\\\":m.islog?m.type=\\\"log\\\":!1===m.isdate&&!1===m.islog&&(m.type=\\\"linear\\\")),\\\"withzero\\\"!==m.autorange&&\\\"tozero\\\"!==m.autorange||(m.autorange=!0,m.rangemode=\\\"tozero\\\"),delete m.islog,delete m.isdate,delete m.categories,y(m,\\\"domain\\\")&&delete m.domain,void 0!==m.autotick&&(void 0===m.tickmode&&(m.tickmode=m.autotick?\\\"auto\\\":\\\"linear\\\"),delete m.autotick),d(m)}else if(l&&l.test(v)){d(t[v].radialaxis)}else if(f&&f.test(v)){var x=t[v];d(x.aaxis),d(x.baxis),d(x.caxis)}else if(h&&h.test(v)){var b=t[v],_=b.cameraposition;if(Array.isArray(_)&&4===_[0].length){var w=_[0],k=_[1],T=_[2],A=i([],w),M=[];for(n=0;n<3;++n)M[n]=k[n]+T*A[2+4*n];b.camera={eye:{x:M[0],y:M[1],z:M[2]},center:{x:k[0],y:k[1],z:k[2]},up:{x:0,y:0,z:1}},delete b.cameraposition}d(b.xaxis),d(b.yaxis),d(b.zaxis)}}var S=Array.isArray(t.annotations)?t.annotations.length:0;for(e=0;e<S;e++){var E=t.annotations[e];o.isPlainObject(E)&&(E.ref&&(\\\"paper\\\"===E.ref?(E.xref=\\\"paper\\\",E.yref=\\\"paper\\\"):\\\"data\\\"===E.ref&&(E.xref=\\\"x\\\",E.yref=\\\"y\\\"),delete E.ref),p(E,\\\"xref\\\"),p(E,\\\"yref\\\"))}var C=Array.isArray(t.shapes)?t.shapes.length:0;for(e=0;e<C;e++){var L=t.shapes[e];o.isPlainObject(L)&&(p(L,\\\"xref\\\"),p(L,\\\"yref\\\"))}var z=t.legend;return z&&(z.x>3?(z.x=1.02,z.xanchor=\\\"left\\\"):z.x<-2&&(z.x=-.02,z.xanchor=\\\"right\\\"),z.y>3?(z.y=1.02,z.yanchor=\\\"bottom\\\"):z.y<-2&&(z.y=-.02,z.yanchor=\\\"top\\\")),d(t),\\\"rotate\\\"===t.dragmode&&(t.dragmode=\\\"orbit\\\"),c.clean(t),t.template&&t.template.layout&&r.cleanLayout(t.template.layout),t},r.cleanData=function(t){for(var e=0;e<t.length;e++){var n,i=t[e];if(\\\"histogramy\\\"===i.type&&\\\"xbins\\\"in i&&!(\\\"ybins\\\"in i)&&(i.ybins=i.xbins,delete i.xbins),i.error_y&&\\\"opacity\\\"in i.error_y){var l=c.defaults,f=i.error_y.color||(h(i,\\\"bar\\\")?c.defaultLine:l[e%l.length]);i.error_y.color=c.addOpacity(c.rgb(f),c.opacity(f)*i.error_y.opacity),delete i.error_y.opacity}if(\\\"bardir\\\"in i&&(\\\"h\\\"!==i.bardir||!h(i,\\\"bar\\\")&&\\\"histogram\\\"!==i.type.substr(0,9)||(i.orientation=\\\"h\\\",r.swapXYData(i)),delete i.bardir),\\\"histogramy\\\"===i.type&&r.swapXYData(i),\\\"histogramx\\\"!==i.type&&\\\"histogramy\\\"!==i.type||(i.type=\\\"histogram\\\"),\\\"scl\\\"in i&&!(\\\"colorscale\\\"in i)&&(i.colorscale=i.scl,delete i.scl),\\\"reversescl\\\"in i&&!(\\\"reversescale\\\"in i)&&(i.reversescale=i.reversescl,delete i.reversescl),i.xaxis&&(i.xaxis=u(i.xaxis,\\\"x\\\")),i.yaxis&&(i.yaxis=u(i.yaxis,\\\"y\\\")),h(i,\\\"gl3d\\\")&&i.scene&&(i.scene=s.subplotsRegistry.gl3d.cleanId(i.scene)),!h(i,\\\"pie-like\\\")&&!h(i,\\\"bar-like\\\"))if(Array.isArray(i.textposition))for(n=0;n<i.textposition.length;n++)i.textposition[n]=m(i.textposition[n]);else i.textposition&&(i.textposition=m(i.textposition));var p=a.getModule(i);if(p&&p.colorbar){var x=p.colorbar.container,b=x?i[x]:i;b&&b.colorscale&&(\\\"YIGnBu\\\"===b.colorscale&&(b.colorscale=\\\"YlGnBu\\\"),\\\"YIOrRd\\\"===b.colorscale&&(b.colorscale=\\\"YlOrRd\\\"))}if(\\\"surface\\\"===i.type&&o.isPlainObject(i.contours)){var _=[\\\"x\\\",\\\"y\\\",\\\"z\\\"];for(n=0;n<_.length;n++){var w=i.contours[_[n]];o.isPlainObject(w)&&(w.highlightColor&&(w.highlightcolor=w.highlightColor,delete w.highlightColor),w.highlightWidth&&(w.highlightwidth=w.highlightWidth,delete w.highlightWidth))}}if(\\\"candlestick\\\"===i.type||\\\"ohlc\\\"===i.type){var k=!1!==(i.increasing||{}).showlegend,T=!1!==(i.decreasing||{}).showlegend,A=g(i.increasing),M=g(i.decreasing);if(!1!==A&&!1!==M){var S=v(A,M,k,T);S&&(i.name=S)}else!A&&!M||i.name||(i.name=A||M)}if(Array.isArray(i.transforms)){var E=i.transforms;for(n=0;n<E.length;n++){var C=E[n];if(o.isPlainObject(C))switch(C.type){case\\\"filter\\\":C.filtersrc&&(C.target=C.filtersrc,delete C.filtersrc),C.calendar&&(C.valuecalendar||(C.valuecalendar=C.calendar),delete C.calendar);break;case\\\"groupby\\\":if(C.styles=C.styles||C.style,C.styles&&!Array.isArray(C.styles)){var L=C.styles,z=Object.keys(L);C.styles=[];for(var O=0;O<z.length;O++)C.styles.push({target:z[O],value:L[z[O]]})}}}}y(i,\\\"line\\\")&&delete i.line,\\\"marker\\\"in i&&(y(i.marker,\\\"line\\\")&&delete i.marker.line,y(i,\\\"marker\\\")&&delete i.marker),c.clean(i),i.autobinx&&(delete i.autobinx,delete i.xbins),i.autobiny&&(delete i.autobiny,delete i.ybins),d(i),i.colorbar&&d(i.colorbar),i.marker&&i.marker.colorbar&&d(i.marker.colorbar),i.line&&i.line.colorbar&&d(i.line.colorbar),i.aaxis&&d(i.aaxis),i.baxis&&d(i.baxis)}},r.swapXYData=function(t){var e;if(o.swapAttrs(t,[\\\"?\\\",\\\"?0\\\",\\\"d?\\\",\\\"?bins\\\",\\\"nbins?\\\",\\\"autobin?\\\",\\\"?src\\\",\\\"error_?\\\"]),Array.isArray(t.z)&&Array.isArray(t.z[0])&&(t.transpose?delete t.transpose:t.transpose=!0),t.error_x&&t.error_y){var r=t.error_y,n=\\\"copy_ystyle\\\"in r?r.copy_ystyle:!(r.color||r.thickness||r.width);o.swapAttrs(t,[\\\"error_?.copy_ystyle\\\"]),n&&o.swapAttrs(t,[\\\"error_?.color\\\",\\\"error_?.thickness\\\",\\\"error_?.width\\\"])}if(\\\"string\\\"==typeof t.hoverinfo){var i=t.hoverinfo.split(\\\"+\\\");for(e=0;e<i.length;e++)\\\"x\\\"===i[e]?i[e]=\\\"y\\\":\\\"y\\\"===i[e]&&(i[e]=\\\"x\\\");t.hoverinfo=i.join(\\\"+\\\")}},r.coerceTraceIndices=function(t,e){if(n(e))return[e];if(!Array.isArray(e)||!e.length)return t.data.map(function(t,e){return e});if(Array.isArray(e)){for(var r=[],i=0;i<e.length;i++)o.isIndex(e[i],t.data.length)?r.push(e[i]):o.warn(\\\"trace index (\\\",e[i],\\\") is not a number or is out of bounds\\\");return r}return e},r.manageArrayContainers=function(t,e,r){var i=t.obj,a=t.parts,s=a.length,l=a[s-1],c=n(l);if(c&&null===e){var u=a.slice(0,s-1).join(\\\".\\\");o.nestedProperty(i,u).get().splice(l,1)}else c&&void 0===t.get()?(void 0===t.get()&&(r[t.astr]=null),t.set(e)):t.set(e)};var x=/(\\\\.[^\\\\[\\\\]\\\\.]+|\\\\[[^\\\\[\\\\]\\\\.]+\\\\])$/;function b(t){var e=t.search(x);if(e>0)return t.substr(0,e)}r.hasParent=function(t,e){for(var r=b(e);r;){if(r in t)return!0;r=b(r)}return!1};var _=[\\\"x\\\",\\\"y\\\",\\\"z\\\"];r.clearAxisTypes=function(t,e,r){for(var n=0;n<e.length;n++)for(var i=t._fullData[n],a=0;a<3;a++){var s=f(t,i,_[a]);if(s&&\\\"log\\\"!==s.type){var l=s._name,c=s._id.substr(1);if(\\\"scene\\\"===c.substr(0,5)){if(void 0!==r[c])continue;l=c+\\\".\\\"+l}var u=l+\\\".type\\\";void 0===r[l]&&void 0===r[u]&&o.nestedProperty(t.layout,u).set(null)}}}},{\\\"../components/color\\\":580,\\\"../lib\\\":703,\\\"../plots/cartesian/axis_ids\\\":754,\\\"../plots/plots\\\":812,\\\"../registry\\\":831,\\\"fast-isnumeric\\\":224,\\\"gl-mat4/fromQuat\\\":261}],736:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./plot_api\\\");r.plot=n.plot,r.newPlot=n.newPlot,r.restyle=n.restyle,r.relayout=n.relayout,r.redraw=n.redraw,r.update=n.update,r._guiRestyle=n._guiRestyle,r._guiRelayout=n._guiRelayout,r._guiUpdate=n._guiUpdate,r._storeDirectGUIEdit=n._storeDirectGUIEdit,r.react=n.react,r.extendTraces=n.extendTraces,r.prependTraces=n.prependTraces,r.addTraces=n.addTraces,r.deleteTraces=n.deleteTraces,r.moveTraces=n.moveTraces,r.purge=n.purge,r.addFrames=n.addFrames,r.deleteFrames=n.deleteFrames,r.animate=n.animate,r.setPlotConfig=n.setPlotConfig,r.toImage=t(\\\"./to_image\\\"),r.validate=t(\\\"./validate\\\"),r.downloadImage=t(\\\"../snapshot/download\\\");var i=t(\\\"./template_api\\\");r.makeTemplate=i.makeTemplate,r.validateTemplate=i.validateTemplate},{\\\"../snapshot/download\\\":833,\\\"./plot_api\\\":738,\\\"./template_api\\\":743,\\\"./to_image\\\":744,\\\"./validate\\\":745}],737:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../lib/is_plain_object\\\"),i=t(\\\"../lib/noop\\\"),a=t(\\\"../lib/loggers\\\"),o=t(\\\"../lib/search\\\").sorterAsc,s=t(\\\"../registry\\\");r.containerArrayMatch=t(\\\"./container_array_match\\\");var l=r.isAddVal=function(t){return\\\"add\\\"===t||n(t)},c=r.isRemoveVal=function(t){return null===t||\\\"remove\\\"===t};r.applyContainerArrayChanges=function(t,e,r,n,u){var f=e.astr,h=s.getComponentMethod(f,\\\"supplyLayoutDefaults\\\"),p=s.getComponentMethod(f,\\\"draw\\\"),d=s.getComponentMethod(f,\\\"drawOne\\\"),g=n.replot||n.recalc||h===i||p===i,v=t.layout,m=t._fullLayout;if(r[\\\"\\\"]){Object.keys(r).length>1&&a.warn(\\\"Full array edits are incompatible with other edits\\\",f);var y=r[\\\"\\\"][\\\"\\\"];if(c(y))e.set(null);else{if(!Array.isArray(y))return a.warn(\\\"Unrecognized full array edit value\\\",f,y),!0;e.set(y)}return!g&&(h(v,m),p(t),!0)}var x,b,_,w,k,T,A,M,S=Object.keys(r).map(Number).sort(o),E=e.get(),C=E||[],L=u(m,f).get(),z=[],O=-1,I=C.length;for(x=0;x<S.length;x++)if(w=r[_=S[x]],k=Object.keys(w),T=w[\\\"\\\"],A=l(T),_<0||_>C.length-(A?0:1))a.warn(\\\"index out of range\\\",f,_);else if(void 0!==T)k.length>1&&a.warn(\\\"Insertion & removal are incompatible with edits to the same index.\\\",f,_),c(T)?z.push(_):A?(\\\"add\\\"===T&&(T={}),C.splice(_,0,T),L&&L.splice(_,0,{})):a.warn(\\\"Unrecognized full object edit value\\\",f,_,T),-1===O&&(O=_);else for(b=0;b<k.length;b++)M=f+\\\"[\\\"+_+\\\"].\\\",u(C[_],k[b],M).set(w[k[b]]);for(x=z.length-1;x>=0;x--)C.splice(z[x],1),L&&L.splice(z[x],1);if(C.length?E||e.set(C):e.set(null),g)return!1;if(h(v,m),d!==i){var D;if(-1===O)D=S;else{for(I=Math.max(C.length,I),D=[],x=0;x<S.length&&!((_=S[x])>=O);x++)D.push(_);for(x=O;x<I;x++)D.push(x)}for(x=0;x<D.length;x++)d(t,D[x])}else p(t);return!0}},{\\\"../lib/is_plain_object\\\":704,\\\"../lib/loggers\\\":707,\\\"../lib/noop\\\":712,\\\"../lib/search\\\":722,\\\"../registry\\\":831,\\\"./container_array_match\\\":733}],738:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"fast-isnumeric\\\"),a=t(\\\"has-hover\\\"),o=t(\\\"../lib\\\"),s=o.nestedProperty,l=t(\\\"../lib/events\\\"),c=t(\\\"../lib/queue\\\"),u=t(\\\"../registry\\\"),f=t(\\\"./plot_schema\\\"),h=t(\\\"../plots/plots\\\"),p=t(\\\"../plots/polar/legacy\\\"),d=t(\\\"../plots/cartesian/axes\\\"),g=t(\\\"../components/drawing\\\"),v=t(\\\"../components/color\\\"),m=t(\\\"../plots/cartesian/graph_interact\\\").initInteractions,y=t(\\\"../constants/xmlns_namespaces\\\"),x=t(\\\"../lib/svg_text_utils\\\"),b=t(\\\"../plots/cartesian/select\\\").clearSelect,_=t(\\\"./plot_config\\\").dfltConfig,w=t(\\\"./manage_arrays\\\"),k=t(\\\"./helpers\\\"),T=t(\\\"./subroutines\\\"),A=t(\\\"./edit_types\\\"),M=t(\\\"../plots/cartesian/constants\\\").AX_NAME_PATTERN,S=0,E=5;function C(t){var e=t._fullLayout;e._redrawFromAutoMarginCount?e._redrawFromAutoMarginCount--:t.emit(\\\"plotly_afterplot\\\")}function L(t,e){try{t._fullLayout._paper.style(\\\"background\\\",e)}catch(t){o.error(t)}}function z(t,e){L(t,v.combine(e,\\\"white\\\"))}function O(t,e){if(!t._context){t._context=o.extendDeep({},_);var r=n.select(\\\"base\\\");t._context._baseUrl=r.size()&&r.attr(\\\"href\\\")?window.location.href.split(\\\"#\\\")[0]:\\\"\\\"}var i,s,l,c=t._context;if(e){for(s=Object.keys(e),i=0;i<s.length;i++)\\\"editable\\\"!==(l=s[i])&&\\\"edits\\\"!==l&&l in c&&(\\\"setBackground\\\"===l&&\\\"opaque\\\"===e[l]?c[l]=z:c[l]=e[l]);e.plot3dPixelRatio&&!c.plotGlPixelRatio&&(c.plotGlPixelRatio=c.plot3dPixelRatio);var u=e.editable;if(void 0!==u)for(c.editable=u,s=Object.keys(c.edits),i=0;i<s.length;i++)c.edits[s[i]]=u;if(e.edits)for(s=Object.keys(e.edits),i=0;i<s.length;i++)(l=s[i])in c.edits&&(c.edits[l]=e.edits[l]);c._exportedPlot=e._exportedPlot}c.staticPlot&&(c.editable=!1,c.edits={},c.autosizable=!1,c.scrollZoom=!1,c.doubleClick=!1,c.showTips=!1,c.showLink=!1,c.displayModeBar=!1),\\\"hover\\\"!==c.displayModeBar||a||(c.displayModeBar=!0),\\\"transparent\\\"!==c.setBackground&&\\\"function\\\"==typeof c.setBackground||(c.setBackground=L),c._hasZeroHeight=c._hasZeroHeight||0===t.clientHeight,c._hasZeroWidth=c._hasZeroWidth||0===t.clientWidth;var f=c.scrollZoom,h=c._scrollZoom={};if(!0===f)h.cartesian=1,h.gl3d=1,h.geo=1,h.mapbox=1;else if(\\\"string\\\"==typeof f){var p=f.split(\\\"+\\\");for(i=0;i<p.length;i++)h[p[i]]=1}else!1!==f&&(h.gl3d=1,h.geo=1,h.mapbox=1)}function I(t,e){var r,n,i=e+1,a=[];for(r=0;r<t.length;r++)(n=t[r])<0?a.push(i+n):a.push(n);return a}function D(t,e,r){var n,i;for(n=0;n<e.length;n++){if((i=e[n])!==parseInt(i,10))throw new Error(\\\"all values in \\\"+r+\\\" must be integers\\\");if(i>=t.data.length||i<-t.data.length)throw new Error(r+\\\" must be valid indices for gd.data.\\\");if(e.indexOf(i,n+1)>-1||i>=0&&e.indexOf(-t.data.length+i)>-1||i<0&&e.indexOf(t.data.length+i)>-1)throw new Error(\\\"each index in \\\"+r+\\\" must be unique.\\\")}}function P(t,e,r){if(!Array.isArray(t.data))throw new Error(\\\"gd.data must be an array.\\\");if(\\\"undefined\\\"==typeof e)throw new Error(\\\"currentIndices is a required argument.\\\");if(Array.isArray(e)||(e=[e]),D(t,e,\\\"currentIndices\\\"),\\\"undefined\\\"==typeof r||Array.isArray(r)||(r=[r]),\\\"undefined\\\"!=typeof r&&D(t,r,\\\"newIndices\\\"),\\\"undefined\\\"!=typeof r&&e.length!==r.length)throw new Error(\\\"current and new indices must be of equal length.\\\")}function R(t,e,r,n,a){!function(t,e,r,n){var i=o.isPlainObject(n);if(!Array.isArray(t.data))throw new Error(\\\"gd.data must be an array\\\");if(!o.isPlainObject(e))throw new Error(\\\"update must be a key:value object\\\");if(\\\"undefined\\\"==typeof r)throw new Error(\\\"indices must be an integer or array of integers\\\");for(var a in D(t,r,\\\"indices\\\"),e){if(!Array.isArray(e[a])||e[a].length!==r.length)throw new Error(\\\"attribute \\\"+a+\\\" must be an array of length equal to indices array length\\\");if(i&&(!(a in n)||!Array.isArray(n[a])||n[a].length!==e[a].length))throw new Error(\\\"when maxPoints is set as a key:value object it must contain a 1:1 corrispondence with the keys and number of traces in the update object\\\")}}(t,e,r,n);for(var l=function(t,e,r,n){var a,l,c,u,f,h=o.isPlainObject(n),p=[];for(var d in Array.isArray(r)||(r=[r]),r=I(r,t.data.length-1),e)for(var g=0;g<r.length;g++){if(a=t.data[r[g]],l=(c=s(a,d)).get(),u=e[d][g],!o.isArrayOrTypedArray(u))throw new Error(\\\"attribute: \\\"+d+\\\" index: \\\"+g+\\\" must be an array\\\");if(!o.isArrayOrTypedArray(l))throw new Error(\\\"cannot extend missing or non-array attribute: \\\"+d);if(l.constructor!==u.constructor)throw new Error(\\\"cannot extend array with an array of a different type: \\\"+d);f=h?n[d][g]:n,i(f)||(f=-1),p.push({prop:c,target:l,insert:u,maxp:Math.floor(f)})}return p}(t,e,r,n),c={},u={},f=0;f<l.length;f++){var h=l[f].prop,p=l[f].maxp,d=a(l[f].target,l[f].insert,p);h.set(d[0]),Array.isArray(c[h.astr])||(c[h.astr]=[]),c[h.astr].push(d[1]),Array.isArray(u[h.astr])||(u[h.astr]=[]),u[h.astr].push(l[f].target.length)}return{update:c,maxPoints:u}}function F(t,e){var r=new t.constructor(t.length+e.length);return r.set(t),r.set(e,t.length),r}function B(t,e,n,i){t=o.getGraphDiv(t),k.clearPromiseQueue(t);var a={};if(\\\"string\\\"==typeof e)a[e]=n;else{if(!o.isPlainObject(e))return o.warn(\\\"Restyle fail.\\\",e,n,i),Promise.reject();a=o.extendFlat({},e),void 0===i&&(i=n)}Object.keys(a).length&&(t.changed=!0);var s=k.coerceTraceIndices(t,i),l=U(t,a,s),u=l.flags;u.calc&&(t.calcdata=void 0),u.clearAxisTypes&&k.clearAxisTypes(t,s,{});var f=[];u.fullReplot?f.push(r.plot):(f.push(h.previousPromises),h.supplyDefaults(t),u.markerSize&&(h.doCalcdata(t),Y(f)),u.style&&f.push(T.doTraceStyle),u.colorbars&&f.push(T.doColorBars),f.push(C)),f.push(h.rehover,h.redrag),c.add(t,B,[t,l.undoit,l.traces],B,[t,l.redoit,l.traces]);var p=o.syncOrAsync(f,t);return p&&p.then||(p=Promise.resolve()),p.then(function(){return t.emit(\\\"plotly_restyle\\\",l.eventData),t})}function N(t){return void 0===t?null:t}function j(t,e){return e?function(e,r,n){var i=s(e,r),a=i.set;return i.set=function(e){V((n||\\\"\\\")+r,i.get(),e,t),a(e)},i}:s}function V(t,e,r,n){if(Array.isArray(e)||Array.isArray(r))for(var i=Array.isArray(e)?e:[],a=Array.isArray(r)?r:[],s=Math.max(i.length,a.length),l=0;l<s;l++)V(t+\\\"[\\\"+l+\\\"]\\\",i[l],a[l],n);else if(o.isPlainObject(e)||o.isPlainObject(r)){var c=o.isPlainObject(e)?e:{},u=o.isPlainObject(r)?r:{},f=o.extendFlat({},c,u);for(var h in f)V(t+\\\".\\\"+h,c[h],u[h],n)}else void 0===n[t]&&(n[t]=N(e))}function U(t,e,r){var n,i=t._fullLayout,a=t._fullData,l=t.data,c=i._guiEditing,p=j(i._preGUI,c),g=o.extendDeepAll({},e);H(e);var v,m=A.traceFlags(),y={},x={};function b(){return r.map(function(){})}function _(t){var e=d.id2name(t);-1===v.indexOf(e)&&v.push(e)}function w(t){return\\\"LAYOUT\\\"+t+\\\".autorange\\\"}function T(t){return\\\"LAYOUT\\\"+t+\\\".range\\\"}function M(t){for(var e=t;e<a.length;e++)if(a[e]._input===l[t])return a[e]}function S(n,a,o){if(Array.isArray(n))n.forEach(function(t){S(t,a,o)});else if(!(n in e||k.hasParent(e,n))){var s;if(\\\"LAYOUT\\\"===n.substr(0,6))s=p(t.layout,n.replace(\\\"LAYOUT\\\",\\\"\\\"));else{var u=r[o];s=j(i._tracePreGUI[M(u)._fullInput.uid],c)(l[u],n)}n in x||(x[n]=b()),void 0===x[n][o]&&(x[n][o]=N(s.get())),void 0!==a&&s.set(a)}}function E(t){return function(e){return a[e][t]}}function C(t){return function(e,n){return!1===e?a[r[n]][t]:null}}for(var L in e){if(k.hasParent(e,L))throw new Error(\\\"cannot set \\\"+L+\\\" and a parent attribute simultaneously\\\");var z,O,I,D,P,R,F=e[L];if(\\\"autobinx\\\"!==L&&\\\"autobiny\\\"!==L||(L=L.charAt(L.length-1)+\\\"bins\\\",F=Array.isArray(F)?F.map(C(L)):!1===F?r.map(E(L)):null),y[L]=F,\\\"LAYOUT\\\"!==L.substr(0,6)){for(x[L]=b(),n=0;n<r.length;n++){if(z=l[r[n]],O=M(r[n]),D=(I=j(i._tracePreGUI[O._fullInput.uid],c)(z,L)).get(),void 0!==(P=Array.isArray(F)?F[n%F.length]:F)){var B=I.parts[I.parts.length-1],V=L.substr(0,L.length-B.length-1),U=V?V+\\\".\\\":\\\"\\\",q=V?s(O,V).get():O;if((R=f.getTraceValObject(O,I.parts))&&R.impliedEdits&&null!==P)for(var G in R.impliedEdits)S(o.relativeAttr(L,G),R.impliedEdits[G],n);else if(\\\"thicknessmode\\\"!==B&&\\\"lenmode\\\"!==B||D===P||\\\"fraction\\\"!==P&&\\\"pixels\\\"!==P||!q){if(\\\"type\\\"===L&&(\\\"pie\\\"===P!=(\\\"pie\\\"===D)||\\\"funnelarea\\\"===P!=(\\\"funnelarea\\\"===D))){var Y=\\\"x\\\",W=\\\"y\\\";\\\"bar\\\"!==P&&\\\"bar\\\"!==D||\\\"h\\\"!==z.orientation||(Y=\\\"y\\\",W=\\\"x\\\"),o.swapAttrs(z,[\\\"?\\\",\\\"?src\\\"],\\\"labels\\\",Y),o.swapAttrs(z,[\\\"d?\\\",\\\"?0\\\"],\\\"label\\\",Y),o.swapAttrs(z,[\\\"?\\\",\\\"?src\\\"],\\\"values\\\",W),\\\"pie\\\"===D||\\\"funnelarea\\\"===D?(s(z,\\\"marker.color\\\").set(s(z,\\\"marker.colors\\\").get()),i._pielayer.selectAll(\\\"g.trace\\\").remove()):u.traceIs(z,\\\"cartesian\\\")&&s(z,\\\"marker.colors\\\").set(s(z,\\\"marker.color\\\").get())}}else{var X=i._size,Z=q.orient,$=\\\"top\\\"===Z||\\\"bottom\\\"===Z;if(\\\"thicknessmode\\\"===B){var J=$?X.h:X.w;S(U+\\\"thickness\\\",q.thickness*(\\\"fraction\\\"===P?1/J:J),n)}else{var K=$?X.w:X.h;S(U+\\\"len\\\",q.len*(\\\"fraction\\\"===P?1/K:K),n)}}x[L][n]=N(D);if(-1!==[\\\"swapxy\\\",\\\"swapxyaxes\\\",\\\"orientation\\\",\\\"orientationaxes\\\"].indexOf(L)){if(\\\"orientation\\\"===L){I.set(P);var Q=z.x&&!z.y?\\\"h\\\":\\\"v\\\";if((I.get()||Q)===O.orientation)continue}else\\\"orientationaxes\\\"===L&&(z.orientation={v:\\\"h\\\",h:\\\"v\\\"}[O.orientation]);k.swapXYData(z),m.calc=m.clearAxisTypes=!0}else-1!==h.dataArrayContainers.indexOf(I.parts[0])?(k.manageArrayContainers(I,P,x),m.calc=!0):(R?R.arrayOk&&!u.traceIs(O,\\\"regl\\\")&&(o.isArrayOrTypedArray(P)||o.isArrayOrTypedArray(D))?m.calc=!0:A.update(m,R):m.calc=!0,I.set(P))}}if(-1!==[\\\"swapxyaxes\\\",\\\"orientationaxes\\\"].indexOf(L)&&d.swap(t,r),\\\"orientationaxes\\\"===L){var tt=s(t.layout,\\\"hovermode\\\");\\\"x\\\"===tt.get()?tt.set(\\\"y\\\"):\\\"y\\\"===tt.get()&&tt.set(\\\"x\\\")}if(-1!==[\\\"orientation\\\",\\\"type\\\"].indexOf(L)){for(v=[],n=0;n<r.length;n++){var et=l[r[n]];u.traceIs(et,\\\"cartesian\\\")&&(_(et.xaxis||\\\"x\\\"),_(et.yaxis||\\\"y\\\"))}S(v.map(w),!0,0),S(v.map(T),[0,1],0)}}else I=p(t.layout,L.replace(\\\"LAYOUT\\\",\\\"\\\")),x[L]=[N(I.get())],I.set(Array.isArray(F)?F[0]:F),m.calc=!0}return(m.calc||m.plot)&&(m.fullReplot=!0),{flags:m,undoit:x,redoit:y,traces:r,eventData:o.extendDeepNoArrays([],[g,r])}}function H(t){var e,r,n,i=o.counterRegex(\\\"axis\\\",\\\".title\\\",!1,!1),a=/colorbar\\\\.title$/,s=Object.keys(t);for(e=0;e<s.length;e++)r=s[e],n=t[r],\\\"title\\\"!==r&&!i.test(r)&&!a.test(r)||\\\"string\\\"!=typeof n&&\\\"number\\\"!=typeof n?r.indexOf(\\\"titlefont\\\")>-1?l(r,r.replace(\\\"titlefont\\\",\\\"title.font\\\")):r.indexOf(\\\"titleposition\\\")>-1?l(r,r.replace(\\\"titleposition\\\",\\\"title.position\\\")):r.indexOf(\\\"titleside\\\")>-1?l(r,r.replace(\\\"titleside\\\",\\\"title.side\\\")):r.indexOf(\\\"titleoffset\\\")>-1&&l(r,r.replace(\\\"titleoffset\\\",\\\"title.offset\\\")):l(r,r.replace(\\\"title\\\",\\\"title.text\\\"));function l(e,r){t[r]=t[e],delete t[e]}}function q(t,e,r){if(t=o.getGraphDiv(t),k.clearPromiseQueue(t),t.framework&&t.framework.isPolar)return Promise.resolve(t);var n={};if(\\\"string\\\"==typeof e)n[e]=r;else{if(!o.isPlainObject(e))return o.warn(\\\"Relayout fail.\\\",e,r),Promise.reject();n=o.extendFlat({},e)}Object.keys(n).length&&(t.changed=!0);var i=$(t,n),a=i.flags;a.calc&&(t.calcdata=void 0);var s=[h.previousPromises];a.layoutReplot?s.push(T.layoutReplot):Object.keys(n).length&&(G(t,a,i)||h.supplyDefaults(t),a.legend&&s.push(T.doLegend),a.layoutstyle&&s.push(T.layoutStyles),a.axrange&&Y(s,i.rangesAltered),a.ticks&&s.push(T.doTicksRelayout),a.modebar&&s.push(T.doModeBar),a.camera&&s.push(T.doCamera),a.colorbars&&s.push(T.doColorBars),s.push(C)),s.push(h.rehover,h.redrag),c.add(t,q,[t,i.undoit],q,[t,i.redoit]);var l=o.syncOrAsync(s,t);return l&&l.then||(l=Promise.resolve(t)),l.then(function(){return t.emit(\\\"plotly_relayout\\\",i.eventData),t})}function G(t,e,r){var n=t._fullLayout;if(!e.axrange)return!1;for(var i in e)if(\\\"axrange\\\"!==i&&e[i])return!1;for(var a in r.rangesAltered){var o=d.id2name(a),s=t.layout[o],l=n[o];if(l.autorange=s.autorange,l.range=s.range.slice(),l.cleanRange(),l._matchGroup)for(var c in l._matchGroup)if(c!==a){var u=n[d.id2name(c)];u.autorange=l.autorange,u.range=l.range.slice(),u._input.range=l.range.slice()}}return!0}function Y(t,e){var r=e?function(t){var r=[],n=!0;for(var i in e){var a=d.getFromId(t,i);if(r.push(i),a._matchGroup)for(var o in a._matchGroup)e[o]||r.push(o);a.automargin&&(n=!1)}return d.draw(t,r,{skipTitle:n})}:function(t){return d.draw(t,\\\"redraw\\\")};t.push(b,T.doAutoRangeAndConstraints,r,T.drawData,T.finalDraw)}var W=/^[xyz]axis[0-9]*\\\\.range(\\\\[[0|1]\\\\])?$/,X=/^[xyz]axis[0-9]*\\\\.autorange$/,Z=/^[xyz]axis[0-9]*\\\\.domain(\\\\[[0|1]\\\\])?$/;function $(t,e){var r,n,i,a=t.layout,l=t._fullLayout,c=l._guiEditing,h=j(l._preGUI,c),p=Object.keys(e),g=d.list(t),v=o.extendDeepAll({},e),m={};for(H(e),p=Object.keys(e),n=0;n<p.length;n++)if(0===p[n].indexOf(\\\"allaxes\\\")){for(i=0;i<g.length;i++){var y=g[i]._id.substr(1),x=-1!==y.indexOf(\\\"scene\\\")?y+\\\".\\\":\\\"\\\",b=p[n].replace(\\\"allaxes\\\",x+g[i]._name);e[b]||(e[b]=e[p[n]])}delete e[p[n]]}var _=A.layoutFlags(),T={},S={};function E(t,r){if(Array.isArray(t))t.forEach(function(t){E(t,r)});else if(!(t in e||k.hasParent(e,t))){var n=h(a,t);t in S||(S[t]=N(n.get())),void 0!==r&&n.set(r)}}var C,L={};function z(t){var e=d.name2id(t.split(\\\".\\\")[0]);return L[e]=1,e}for(var O in e){if(k.hasParent(e,O))throw new Error(\\\"cannot set \\\"+O+\\\" and a parent attribute simultaneously\\\");for(var I=h(a,O),D=e[O],P=I.parts.length-1;P>0&&\\\"string\\\"!=typeof I.parts[P];)P--;var R=I.parts[P],F=I.parts[P-1]+\\\".\\\"+R,B=I.parts.slice(0,P).join(\\\".\\\"),V=s(t.layout,B).get(),U=s(l,B).get(),q=I.get();if(void 0!==D){T[O]=D,S[O]=\\\"reverse\\\"===R?D:N(q);var G=f.getLayoutValObject(l,I.parts);if(G&&G.impliedEdits&&null!==D)for(var Y in G.impliedEdits)E(o.relativeAttr(O,Y),G.impliedEdits[Y]);if(-1!==[\\\"width\\\",\\\"height\\\"].indexOf(O))if(D){E(\\\"autosize\\\",null);var $=\\\"height\\\"===O?\\\"width\\\":\\\"height\\\";E($,l[$])}else l[O]=t._initialAutoSize[O];else if(\\\"autosize\\\"===O)E(\\\"width\\\",D?null:l.width),E(\\\"height\\\",D?null:l.height);else if(F.match(W))z(F),s(l,B+\\\"._inputRange\\\").set(null);else if(F.match(X)){z(F),s(l,B+\\\"._inputRange\\\").set(null);var K=s(l,B).get();K._inputDomain&&(K._input.domain=K._inputDomain.slice())}else F.match(Z)&&s(l,B+\\\"._inputDomain\\\").set(null);if(\\\"type\\\"===R){var Q=V,tt=\\\"linear\\\"===U.type&&\\\"log\\\"===D,et=\\\"log\\\"===U.type&&\\\"linear\\\"===D;if(tt||et){if(Q&&Q.range)if(U.autorange)tt&&(Q.range=Q.range[1]>Q.range[0]?[1,2]:[2,1]);else{var rt=Q.range[0],nt=Q.range[1];tt?(rt<=0&&nt<=0&&E(B+\\\".autorange\\\",!0),rt<=0?rt=nt/1e6:nt<=0&&(nt=rt/1e6),E(B+\\\".range[0]\\\",Math.log(rt)/Math.LN10),E(B+\\\".range[1]\\\",Math.log(nt)/Math.LN10)):(E(B+\\\".range[0]\\\",Math.pow(10,rt)),E(B+\\\".range[1]\\\",Math.pow(10,nt)))}else E(B+\\\".autorange\\\",!0);Array.isArray(l._subplots.polar)&&l._subplots.polar.length&&l[I.parts[0]]&&\\\"radialaxis\\\"===I.parts[1]&&delete l[I.parts[0]]._subplot.viewInitial[\\\"radialaxis.range\\\"],u.getComponentMethod(\\\"annotations\\\",\\\"convertCoords\\\")(t,U,D,E),u.getComponentMethod(\\\"images\\\",\\\"convertCoords\\\")(t,U,D,E)}else E(B+\\\".autorange\\\",!0),E(B+\\\".range\\\",null);s(l,B+\\\"._inputRange\\\").set(null)}else if(R.match(M)){var it=s(l,O).get(),at=(D||{}).type;at&&\\\"-\\\"!==at||(at=\\\"linear\\\"),u.getComponentMethod(\\\"annotations\\\",\\\"convertCoords\\\")(t,it,at,E),u.getComponentMethod(\\\"images\\\",\\\"convertCoords\\\")(t,it,at,E)}var ot=w.containerArrayMatch(O);if(ot){r=ot.array,n=ot.index;var st=ot.property,lt=G||{editType:\\\"calc\\\"};\\\"\\\"!==n&&\\\"\\\"===st&&(w.isAddVal(D)?S[O]=null:w.isRemoveVal(D)?S[O]=(s(a,r).get()||[])[n]:o.warn(\\\"unrecognized full object value\\\",e)),A.update(_,lt),m[r]||(m[r]={});var ct=m[r][n];ct||(ct=m[r][n]={}),ct[st]=D,delete e[O]}else\\\"reverse\\\"===R?(V.range?V.range.reverse():(E(B+\\\".autorange\\\",!0),V.range=[1,0]),U.autorange?_.calc=!0:_.plot=!0):(l._has(\\\"scatter-like\\\")&&l._has(\\\"regl\\\")&&\\\"dragmode\\\"===O&&(\\\"lasso\\\"===D||\\\"select\\\"===D)&&\\\"lasso\\\"!==q&&\\\"select\\\"!==q?_.plot=!0:l._has(\\\"gl2d\\\")?_.plot=!0:G?A.update(_,G):_.calc=!0,I.set(D))}}for(r in m){w.applyContainerArrayChanges(t,h(a,r),m[r],_,h)||(_.plot=!0)}var ut=l._axisConstraintGroups||[];for(C in L)for(n=0;n<ut.length;n++){var ft=ut[n];if(ft[C])for(var ht in _.calc=!0,ft)L[ht]||(d.getFromId(t,ht)._constraintShrinkable=!0)}return(J(t)||e.height||e.width)&&(_.plot=!0),(_.plot||_.calc)&&(_.layoutReplot=!0),{flags:_,rangesAltered:L,undoit:S,redoit:T,eventData:v}}function J(t){var e=t._fullLayout,r=e.width,n=e.height;return t.layout.autosize&&h.plotAutoSize(t,t.layout,e),e.width!==r||e.height!==n}function K(t,e,n,i){if(t=o.getGraphDiv(t),k.clearPromiseQueue(t),t.framework&&t.framework.isPolar)return Promise.resolve(t);o.isPlainObject(e)||(e={}),o.isPlainObject(n)||(n={}),Object.keys(e).length&&(t.changed=!0),Object.keys(n).length&&(t.changed=!0);var a=k.coerceTraceIndices(t,i),s=U(t,o.extendFlat({},e),a),l=s.flags,u=$(t,o.extendFlat({},n)),f=u.flags;(l.calc||f.calc)&&(t.calcdata=void 0),l.clearAxisTypes&&k.clearAxisTypes(t,a,n);var p=[];f.layoutReplot?p.push(T.layoutReplot):l.fullReplot?p.push(r.plot):(p.push(h.previousPromises),G(t,f,u)||h.supplyDefaults(t),l.style&&p.push(T.doTraceStyle),(l.colorbars||f.colorbars)&&p.push(T.doColorBars),f.legend&&p.push(T.doLegend),f.layoutstyle&&p.push(T.layoutStyles),f.axrange&&Y(p,u.rangesAltered),f.ticks&&p.push(T.doTicksRelayout),f.modebar&&p.push(T.doModeBar),f.camera&&p.push(T.doCamera),p.push(C)),p.push(h.rehover,h.redrag),c.add(t,K,[t,s.undoit,u.undoit,s.traces],K,[t,s.redoit,u.redoit,s.traces]);var d=o.syncOrAsync(p,t);return d&&d.then||(d=Promise.resolve(t)),d.then(function(){return t.emit(\\\"plotly_update\\\",{data:s.eventData,layout:u.eventData}),t})}function Q(t){return function(e){e._fullLayout._guiEditing=!0;var r=t.apply(null,arguments);return e._fullLayout._guiEditing=!1,r}}var tt=[{pattern:/^hiddenlabels/,attr:\\\"legend.uirevision\\\"},{pattern:/^((x|y)axis\\\\d*)\\\\.((auto)?range|title\\\\.text)/},{pattern:/axis\\\\d*\\\\.showspikes$/,attr:\\\"modebar.uirevision\\\"},{pattern:/(hover|drag)mode$/,attr:\\\"modebar.uirevision\\\"},{pattern:/^(scene\\\\d*)\\\\.camera/},{pattern:/^(geo\\\\d*)\\\\.(projection|center)/},{pattern:/^(ternary\\\\d*\\\\.[abc]axis)\\\\.(min|title\\\\.text)$/},{pattern:/^(polar\\\\d*\\\\.radialaxis)\\\\.((auto)?range|angle|title\\\\.text)/},{pattern:/^(polar\\\\d*\\\\.angularaxis)\\\\.rotation/},{pattern:/^(mapbox\\\\d*)\\\\.(center|zoom|bearing|pitch)/},{pattern:/^legend\\\\.(x|y)$/,attr:\\\"editrevision\\\"},{pattern:/^(shapes|annotations)/,attr:\\\"editrevision\\\"},{pattern:/^title\\\\.text$/,attr:\\\"editrevision\\\"}],et=[{pattern:/^selectedpoints$/,attr:\\\"selectionrevision\\\"},{pattern:/(^|value\\\\.)visible$/,attr:\\\"legend.uirevision\\\"},{pattern:/^dimensions\\\\[\\\\d+\\\\]\\\\.constraintrange/},{pattern:/^node\\\\.(x|y|groups)/},{pattern:/^level$/},{pattern:/(^|value\\\\.)name$/},{pattern:/colorbar\\\\.title\\\\.text$/},{pattern:/colorbar\\\\.(x|y)$/,attr:\\\"editrevision\\\"}];function rt(t,e){for(var r=0;r<e.length;r++){var n=e[r],i=t.match(n.pattern);if(i)return{head:i[1],attr:n.attr}}}function nt(t,e){var r=s(e,t).get();if(void 0!==r)return r;var n=t.split(\\\".\\\");for(n.pop();n.length>1;)if(n.pop(),void 0!==(r=s(e,n.join(\\\".\\\")+\\\".uirevision\\\").get()))return r;return e.uirevision}function it(t,e){for(var r=0;r<e.length;r++)if(e[r]._fullInput.uid===t)return r;return-1}function at(t,e,r){for(var n=0;n<e.length;n++)if(e[n].uid===t)return n;return!e[r]||e[r].uid?-1:r}function ot(t,e){var r=o.isPlainObject(t),n=Array.isArray(t);return r||n?(r&&o.isPlainObject(e)||n&&Array.isArray(e))&&JSON.stringify(t)===JSON.stringify(e):t===e}function st(t,e,r,n){var i,a,l,c=n.getValObject,u=n.flags,f=n.immutable,h=n.inArray,p=n.arrayIndex;function d(){var t=i.editType;h&&-1!==t.indexOf(\\\"arraydraw\\\")?o.pushUnique(u.arrays[h],p):(A.update(u,i),\\\"none\\\"!==t&&u.nChanges++,n.transition&&i.anim&&u.nChangesAnim++,(W.test(l)||X.test(l))&&(u.rangesAltered[r[0]]=1),Z.test(l)&&s(e,\\\"_inputDomain\\\").set(null),\\\"datarevision\\\"===a&&(u.newDataRevision=1))}function g(t){return\\\"data_array\\\"===t.valType||t.arrayOk}for(a in t){if(u.calc&&!n.transition)return;var v=t[a],m=e[a],y=r.concat(a);if(l=y.join(\\\".\\\"),\\\"_\\\"!==a.charAt(0)&&\\\"function\\\"!=typeof v&&v!==m){if((\\\"tick0\\\"===a||\\\"dtick\\\"===a)&&\\\"geo\\\"!==r[0]){var x=e.tickmode;if(\\\"auto\\\"===x||\\\"array\\\"===x||!x)continue}if((\\\"range\\\"!==a||!e.autorange)&&(\\\"zmin\\\"!==a&&\\\"zmax\\\"!==a||\\\"contourcarpet\\\"!==e.type)&&(i=c(y))&&(!i._compareAsJSON||JSON.stringify(v)!==JSON.stringify(m))){var b,_=i.valType,w=g(i),k=Array.isArray(v),T=Array.isArray(m);if(k&&T){var M=\\\"_input_\\\"+a,S=t[M],E=e[M];if(Array.isArray(S)&&S===E)continue}if(void 0===m)w&&k?u.calc=!0:d();else if(i._isLinkedToArray){var C=[],L=!1;h||(u.arrays[a]=C);var z=Math.min(v.length,m.length),O=Math.max(v.length,m.length);if(z!==O){if(\\\"arraydraw\\\"!==i.editType){d();continue}L=!0}for(b=0;b<z;b++)st(v[b],m[b],y.concat(b),o.extendFlat({inArray:a,arrayIndex:b},n));if(L)for(b=z;b<O;b++)C.push(b)}else!_&&o.isPlainObject(v)?st(v,m,y,n):w?k&&T?(f&&(u.calc=!0),(f||n.newDataRevision)&&d()):k!==T?u.calc=!0:d():k&&T&&v.length===m.length&&String(v)===String(m)||d()}}}for(a in e)if(!(a in t||\\\"_\\\"===a.charAt(0)||\\\"function\\\"==typeof e[a])){if(g(i=c(r.concat(a)))&&Array.isArray(e[a]))return void(u.calc=!0);d()}}function lt(t){var e=n.select(t),r=t._fullLayout;if(r._container=e.selectAll(\\\".plot-container\\\").data([0]),r._container.enter().insert(\\\"div\\\",\\\":first-child\\\").classed(\\\"plot-container\\\",!0).classed(\\\"plotly\\\",!0),r._paperdiv=r._container.selectAll(\\\".svg-container\\\").data([0]),r._paperdiv.enter().append(\\\"div\\\").classed(\\\"svg-container\\\",!0).style(\\\"position\\\",\\\"relative\\\"),r._glcontainer=r._paperdiv.selectAll(\\\".gl-container\\\").data([{}]),r._glcontainer.enter().append(\\\"div\\\").classed(\\\"gl-container\\\",!0),r._paperdiv.selectAll(\\\".main-svg\\\").remove(),r._paperdiv.select(\\\".modebar-container\\\").remove(),r._paper=r._paperdiv.insert(\\\"svg\\\",\\\":first-child\\\").classed(\\\"main-svg\\\",!0),r._toppaper=r._paperdiv.append(\\\"svg\\\").classed(\\\"main-svg\\\",!0),r._modebardiv=r._paperdiv.append(\\\"div\\\"),r._hoverpaper=r._paperdiv.append(\\\"svg\\\").classed(\\\"main-svg\\\",!0),!r._uid){var i={};n.selectAll(\\\"defs\\\").each(function(){this.id&&(i[this.id.split(\\\"-\\\")[1]]=1)}),r._uid=o.randstr(i)}r._paperdiv.selectAll(\\\".main-svg\\\").attr(y.svgAttrs),r._defs=r._paper.append(\\\"defs\\\").attr(\\\"id\\\",\\\"defs-\\\"+r._uid),r._clips=r._defs.append(\\\"g\\\").classed(\\\"clips\\\",!0),r._topdefs=r._toppaper.append(\\\"defs\\\").attr(\\\"id\\\",\\\"topdefs-\\\"+r._uid),r._topclips=r._topdefs.append(\\\"g\\\").classed(\\\"clips\\\",!0),r._bgLayer=r._paper.append(\\\"g\\\").classed(\\\"bglayer\\\",!0),r._draggers=r._paper.append(\\\"g\\\").classed(\\\"draglayer\\\",!0);var a=r._paper.append(\\\"g\\\").classed(\\\"layer-below\\\",!0);r._imageLowerLayer=a.append(\\\"g\\\").classed(\\\"imagelayer\\\",!0),r._shapeLowerLayer=a.append(\\\"g\\\").classed(\\\"shapelayer\\\",!0),r._cartesianlayer=r._paper.append(\\\"g\\\").classed(\\\"cartesianlayer\\\",!0),r._polarlayer=r._paper.append(\\\"g\\\").classed(\\\"polarlayer\\\",!0),r._ternarylayer=r._paper.append(\\\"g\\\").classed(\\\"ternarylayer\\\",!0),r._geolayer=r._paper.append(\\\"g\\\").classed(\\\"geolayer\\\",!0),r._funnelarealayer=r._paper.append(\\\"g\\\").classed(\\\"funnelarealayer\\\",!0),r._pielayer=r._paper.append(\\\"g\\\").classed(\\\"pielayer\\\",!0),r._sunburstlayer=r._paper.append(\\\"g\\\").classed(\\\"sunburstlayer\\\",!0),r._glimages=r._paper.append(\\\"g\\\").classed(\\\"glimages\\\",!0);var s=r._toppaper.append(\\\"g\\\").classed(\\\"layer-above\\\",!0);r._imageUpperLayer=s.append(\\\"g\\\").classed(\\\"imagelayer\\\",!0),r._shapeUpperLayer=s.append(\\\"g\\\").classed(\\\"shapelayer\\\",!0),r._infolayer=r._toppaper.append(\\\"g\\\").classed(\\\"infolayer\\\",!0),r._menulayer=r._toppaper.append(\\\"g\\\").classed(\\\"menulayer\\\",!0),r._zoomlayer=r._toppaper.append(\\\"g\\\").classed(\\\"zoomlayer\\\",!0),r._hoverlayer=r._hoverpaper.append(\\\"g\\\").classed(\\\"hoverlayer\\\",!0),r._modebardiv.classed(\\\"modebar-container\\\",!0).style(\\\"position\\\",\\\"absolute\\\").style(\\\"top\\\",\\\"0px\\\").style(\\\"right\\\",\\\"0px\\\"),t.emit(\\\"plotly_framework\\\")}r.animate=function(t,e,r){if(t=o.getGraphDiv(t),!o.isPlotDiv(t))throw new Error(\\\"This element is not a Plotly plot: \\\"+t+\\\". It's likely that you've failed to create a plot before animating it. For more details, see https://plot.ly/javascript/animations/\\\");var n=t._transitionData;n._frameQueue||(n._frameQueue=[]);var i=(r=h.supplyAnimationDefaults(r)).transition,a=r.frame;function s(t){return Array.isArray(i)?t>=i.length?i[0]:i[t]:i}function l(t){return Array.isArray(a)?t>=a.length?a[0]:a[t]:a}function c(t,e){var r=0;return function(){if(t&&++r===e)return t()}}return void 0===n._frameWaitingCnt&&(n._frameWaitingCnt=0),new Promise(function(a,u){function f(){n._currentFrame&&n._currentFrame.onComplete&&n._currentFrame.onComplete();var e=n._currentFrame=n._frameQueue.shift();if(e){var r=e.name?e.name.toString():null;t._fullLayout._currentFrame=r,n._lastFrameAt=Date.now(),n._timeToNext=e.frameOpts.duration,h.transition(t,e.frame.data,e.frame.layout,k.coerceTraceIndices(t,e.frame.traces),e.frameOpts,e.transitionOpts).then(function(){e.onComplete&&e.onComplete()}),t.emit(\\\"plotly_animatingframe\\\",{name:r,frame:e.frame,animation:{frame:e.frameOpts,transition:e.transitionOpts}})}else t.emit(\\\"plotly_animated\\\"),window.cancelAnimationFrame(n._animationRaf),n._animationRaf=null}function p(){t.emit(\\\"plotly_animating\\\"),n._lastFrameAt=-1/0,n._timeToNext=0,n._runningTransitions=0,n._currentFrame=null;var e=function(){n._animationRaf=window.requestAnimationFrame(e),Date.now()-n._lastFrameAt>n._timeToNext&&f()};e()}var d,g,v=0;function m(t){return Array.isArray(i)?v>=i.length?t.transitionOpts=i[v]:t.transitionOpts=i[0]:t.transitionOpts=i,v++,t}var y=[],x=null==e,b=Array.isArray(e);if(x||b||!o.isPlainObject(e)){if(x||-1!==[\\\"string\\\",\\\"number\\\"].indexOf(typeof e))for(d=0;d<n._frames.length;d++)(g=n._frames[d])&&(x||String(g.group)===String(e))&&y.push({type:\\\"byname\\\",name:String(g.name),data:m({name:g.name})});else if(b)for(d=0;d<e.length;d++){var _=e[d];-1!==[\\\"number\\\",\\\"string\\\"].indexOf(typeof _)?(_=String(_),y.push({type:\\\"byname\\\",name:_,data:m({name:_})})):o.isPlainObject(_)&&y.push({type:\\\"object\\\",data:m(o.extendFlat({},_))})}}else y.push({type:\\\"object\\\",data:m(o.extendFlat({},e))});for(d=0;d<y.length;d++)if(\\\"byname\\\"===(g=y[d]).type&&!n._frameHash[g.data.name])return o.warn('animate failure: frame not found: \\\"'+g.data.name+'\\\"'),void u();-1!==[\\\"next\\\",\\\"immediate\\\"].indexOf(r.mode)&&function(){if(0!==n._frameQueue.length){for(;n._frameQueue.length;){var e=n._frameQueue.pop();e.onInterrupt&&e.onInterrupt()}t.emit(\\\"plotly_animationinterrupted\\\",[])}}(),\\\"reverse\\\"===r.direction&&y.reverse();var w=t._fullLayout._currentFrame;if(w&&r.fromcurrent){var T=-1;for(d=0;d<y.length;d++)if(\\\"byname\\\"===(g=y[d]).type&&g.name===w){T=d;break}if(T>0&&T<y.length-1){var A=[];for(d=0;d<y.length;d++)g=y[d],(\\\"byname\\\"!==y[d].type||d>T)&&A.push(g);y=A}}y.length>0?function(e){if(0!==e.length){for(var i=0;i<e.length;i++){var o;o=\\\"byname\\\"===e[i].type?h.computeFrame(t,e[i].name):e[i].data;var f=l(i),d=s(i);d.duration=Math.min(d.duration,f.duration);var g={frame:o,name:e[i].name,frameOpts:f,transitionOpts:d};i===e.length-1&&(g.onComplete=c(a,2),g.onInterrupt=u),n._frameQueue.push(g)}\\\"immediate\\\"===r.mode&&(n._lastFrameAt=-1/0),n._animationRaf||p()}}(y):(t.emit(\\\"plotly_animated\\\"),a())})},r.addFrames=function(t,e,r){if(t=o.getGraphDiv(t),null==e)return Promise.resolve();if(!o.isPlotDiv(t))throw new Error(\\\"This element is not a Plotly plot: \\\"+t+\\\". It's likely that you've failed to create a plot before adding frames. For more details, see https://plot.ly/javascript/animations/\\\");var n,i,a,s,l=t._transitionData._frames,u=t._transitionData._frameHash;if(!Array.isArray(e))throw new Error(\\\"addFrames failure: frameList must be an Array of frame definitions\\\"+e);var f=l.length+2*e.length,p=[],d={};for(n=e.length-1;n>=0;n--)if(o.isPlainObject(e[n])){var g=e[n].name,v=(u[g]||d[g]||{}).name,m=e[n].name,y=u[v]||d[v];v&&m&&\\\"number\\\"==typeof m&&y&&S<E&&(S++,o.warn('addFrames: overwriting frame \\\"'+(u[v]||d[v]).name+'\\\" with a frame whose name of type \\\"number\\\" also equates to \\\"'+v+'\\\". This is valid but may potentially lead to unexpected behavior since all plotly.js frame names are stored internally as strings.'),S===E&&o.warn(\\\"addFrames: This API call has yielded too many of these warnings. For the rest of this call, further warnings about numeric frame names will be suppressed.\\\")),d[g]={name:g},p.push({frame:h.supplyFrameDefaults(e[n]),index:r&&void 0!==r[n]&&null!==r[n]?r[n]:f+n})}p.sort(function(t,e){return t.index>e.index?-1:t.index<e.index?1:0});var x=[],b=[],_=l.length;for(n=p.length-1;n>=0;n--){if(\\\"number\\\"==typeof(i=p[n].frame).name&&o.warn(\\\"Warning: addFrames accepts frames with numeric names, but the numbers areimplicitly cast to strings\\\"),!i.name)for(;u[i.name=\\\"frame \\\"+t._transitionData._counter++];);if(u[i.name]){for(a=0;a<l.length&&(l[a]||{}).name!==i.name;a++);x.push({type:\\\"replace\\\",index:a,value:i}),b.unshift({type:\\\"replace\\\",index:a,value:l[a]})}else s=Math.max(0,Math.min(p[n].index,_)),x.push({type:\\\"insert\\\",index:s,value:i}),b.unshift({type:\\\"delete\\\",index:s}),_++}var w=h.modifyFrames,k=h.modifyFrames,T=[t,b],A=[t,x];return c&&c.add(t,w,T,k,A),h.modifyFrames(t,x)},r.deleteFrames=function(t,e){if(t=o.getGraphDiv(t),!o.isPlotDiv(t))throw new Error(\\\"This element is not a Plotly plot: \\\"+t);var r,n,i=t._transitionData._frames,a=[],s=[];if(!e)for(e=[],r=0;r<i.length;r++)e.push(r);for((e=e.slice(0)).sort(),r=e.length-1;r>=0;r--)n=e[r],a.push({type:\\\"delete\\\",index:n}),s.unshift({type:\\\"insert\\\",index:n,value:i[n]});var l=h.modifyFrames,u=h.modifyFrames,f=[t,s],p=[t,a];return c&&c.add(t,l,f,u,p),h.modifyFrames(t,a)},r.addTraces=function t(e,n,i){e=o.getGraphDiv(e);var a,s,l=[],u=r.deleteTraces,f=t,h=[e,l],p=[e,n];for(function(t,e,r){var n,i;if(!Array.isArray(t.data))throw new Error(\\\"gd.data must be an array.\\\");if(\\\"undefined\\\"==typeof e)throw new Error(\\\"traces must be defined.\\\");for(Array.isArray(e)||(e=[e]),n=0;n<e.length;n++)if(\\\"object\\\"!=typeof(i=e[n])||Array.isArray(i)||null===i)throw new Error(\\\"all values in traces array must be non-array objects\\\");if(\\\"undefined\\\"==typeof r||Array.isArray(r)||(r=[r]),\\\"undefined\\\"!=typeof r&&r.length!==e.length)throw new Error(\\\"if indices is specified, traces.length must equal indices.length\\\")}(e,n,i),Array.isArray(n)||(n=[n]),n=n.map(function(t){return o.extendFlat({},t)}),k.cleanData(n),a=0;a<n.length;a++)e.data.push(n[a]);for(a=0;a<n.length;a++)l.push(-n.length+a);if(\\\"undefined\\\"==typeof i)return s=r.redraw(e),c.add(e,u,h,f,p),s;Array.isArray(i)||(i=[i]);try{P(e,l,i)}catch(t){throw e.data.splice(e.data.length-n.length,n.length),t}return c.startSequence(e),c.add(e,u,h,f,p),s=r.moveTraces(e,l,i),c.stopSequence(e),s},r.deleteTraces=function t(e,n){e=o.getGraphDiv(e);var i,a,s=[],l=r.addTraces,u=t,f=[e,s,n],h=[e,n];if(\\\"undefined\\\"==typeof n)throw new Error(\\\"indices must be an integer or array of integers.\\\");for(Array.isArray(n)||(n=[n]),D(e,n,\\\"indices\\\"),(n=I(n,e.data.length-1)).sort(o.sorterDes),i=0;i<n.length;i+=1)a=e.data.splice(n[i],1)[0],s.push(a);var p=r.redraw(e);return c.add(e,l,f,u,h),p},r.extendTraces=function t(e,n,i,a){var s=R(e=o.getGraphDiv(e),n,i,a,function(t,e,r){var n,i;if(o.isTypedArray(t))if(r<0){var a=new t.constructor(0),s=F(t,e);r<0?(n=s,i=a):(n=a,i=s)}else if(n=new t.constructor(r),i=new t.constructor(t.length+e.length-r),r===e.length)n.set(e),i.set(t);else if(r<e.length){var l=e.length-r;n.set(e.subarray(l)),i.set(t),i.set(e.subarray(0,l),t.length)}else{var c=r-e.length,u=t.length-c;n.set(t.subarray(u)),n.set(e,c),i.set(t.subarray(0,u))}else n=t.concat(e),i=r>=0&&r<n.length?n.splice(0,n.length-r):[];return[n,i]}),l=r.redraw(e),u=[e,s.update,i,s.maxPoints];return c.add(e,r.prependTraces,u,t,arguments),l},r.moveTraces=function t(e,n,i){var a,s=[],l=[],u=t,f=t,h=[e=o.getGraphDiv(e),i,n],p=[e,n,i];if(P(e,n,i),n=Array.isArray(n)?n:[n],\\\"undefined\\\"==typeof i)for(i=[],a=0;a<n.length;a++)i.push(-n.length+a);for(i=Array.isArray(i)?i:[i],n=I(n,e.data.length-1),i=I(i,e.data.length-1),a=0;a<e.data.length;a++)-1===n.indexOf(a)&&s.push(e.data[a]);for(a=0;a<n.length;a++)l.push({newIndex:i[a],trace:e.data[n[a]]});for(l.sort(function(t,e){return t.newIndex-e.newIndex}),a=0;a<l.length;a+=1)s.splice(l[a].newIndex,0,l[a].trace);e.data=s;var d=r.redraw(e);return c.add(e,u,h,f,p),d},r.prependTraces=function t(e,n,i,a){var s=R(e=o.getGraphDiv(e),n,i,a,function(t,e,r){var n,i;if(o.isTypedArray(t))if(r<=0){var a=new t.constructor(0),s=F(e,t);r<0?(n=s,i=a):(n=a,i=s)}else if(n=new t.constructor(r),i=new t.constructor(t.length+e.length-r),r===e.length)n.set(e),i.set(t);else if(r<e.length){var l=e.length-r;n.set(e.subarray(0,l)),i.set(e.subarray(l)),i.set(t,l)}else{var c=r-e.length;n.set(e),n.set(t.subarray(0,c),e.length),i.set(t.subarray(c))}else n=e.concat(t),i=r>=0&&r<n.length?n.splice(r,n.length):[];return[n,i]}),l=r.redraw(e),u=[e,s.update,i,s.maxPoints];return c.add(e,r.extendTraces,u,t,arguments),l},r.newPlot=function(t,e,n,i){return t=o.getGraphDiv(t),h.cleanPlot([],{},t._fullData||[],t._fullLayout||{}),h.purge(t),r.plot(t,e,n,i)},r.plot=function(t,e,i,a){var s;if(t=o.getGraphDiv(t),l.init(t),o.isPlainObject(e)){var c=e;e=c.data,i=c.layout,a=c.config,s=c.frames}if(!1===l.triggerHandler(t,\\\"plotly_beforeplot\\\",[e,i,a]))return Promise.reject();e||i||o.isPlotDiv(t)||o.warn(\\\"Calling Plotly.plot as if redrawing but this container doesn't yet have a plot.\\\",t),O(t,a),i||(i={}),n.select(t).classed(\\\"js-plotly-plot\\\",!0),g.makeTester(),Array.isArray(t._promises)||(t._promises=[]);var f=0===(t.data||[]).length&&Array.isArray(e);Array.isArray(e)&&(k.cleanData(e),f?t.data=e:t.data.push.apply(t.data,e),t.empty=!1),t.layout&&!f||(t.layout=k.cleanLayout(i)),h.supplyDefaults(t);var v=t._fullLayout,y=v._has(\\\"cartesian\\\");if(!v._has(\\\"polar\\\")&&e&&e[0]&&e[0].r)return o.log(\\\"Legacy polar charts are deprecated!\\\"),function(t,e,r){var i=n.select(t).selectAll(\\\".plot-container\\\").data([0]);i.enter().insert(\\\"div\\\",\\\":first-child\\\").classed(\\\"plot-container plotly\\\",!0);var a=i.selectAll(\\\".svg-container\\\").data([0]);a.enter().append(\\\"div\\\").classed(\\\"svg-container\\\",!0).style(\\\"position\\\",\\\"relative\\\"),a.html(\\\"\\\"),e&&(t.data=e),r&&(t.layout=r),p.manager.fillLayout(t),a.style({width:t._fullLayout.width+\\\"px\\\",height:t._fullLayout.height+\\\"px\\\"}),t.framework=p.manager.framework(t),t.framework({data:t.data,layout:t.layout},a.node()),t.framework.setUndoPoint();var s=t.framework.svg(),l=1,c=t._fullLayout.title?t._fullLayout.title.text:\\\"\\\";\\\"\\\"!==c&&c||(l=0);var u=function(){this.call(x.convertToTspans,t)},f=s.select(\\\".title-group text\\\").call(u);if(t._context.edits.titleText){var d=o._(t,\\\"Click to enter Plot title\\\");c&&c!==d||(l=.2,f.attr({\\\"data-unformatted\\\":d}).text(d).style({opacity:l}).on(\\\"mouseover.opacity\\\",function(){n.select(this).transition().duration(100).style(\\\"opacity\\\",1)}).on(\\\"mouseout.opacity\\\",function(){n.select(this).transition().duration(1e3).style(\\\"opacity\\\",0)}));var g=function(){this.call(x.makeEditable,{gd:t}).on(\\\"edit\\\",function(e){t.framework({layout:{title:{text:e}}}),this.text(e).call(u),this.call(g)}).on(\\\"cancel\\\",function(){var t=this.attr(\\\"data-unformatted\\\");this.text(t).call(u)})};f.call(g)}return t._context.setBackground(t,t._fullLayout.paper_bgcolor),h.addLinks(t),Promise.resolve()}(t,e,i);v._replotting=!0,f&&lt(t),t.framework!==lt&&(t.framework=lt,lt(t)),g.initGradients(t),f&&d.saveShowSpikeInitial(t);var b=!t.calcdata||t.calcdata.length!==(t._fullData||[]).length;b&&h.doCalcdata(t);for(var _=0;_<t.calcdata.length;_++)t.calcdata[_][0].trace=t._fullData[_];t._context.responsive?t._responsiveChartHandler||(t._responsiveChartHandler=function(){h.resize(t)},window.addEventListener(\\\"resize\\\",t._responsiveChartHandler)):o.clearResponsive(t);var w=o.extendFlat({},v._size),A=0;function M(){return h.clearAutoMarginIds(t),T.drawMarginPushers(t),d.allowAutoMargin(t),h.doAutoMargin(t),h.previousPromises(t)}function S(){t._transitioning||(T.doAutoRangeAndConstraints(t),f&&d.saveRangeInitial(t),u.getComponentMethod(\\\"rangeslider\\\",\\\"calcAutorange\\\")(t))}var E=[h.previousPromises,function(){if(s)return r.addFrames(t,s)},function e(){for(var r=v._basePlotModules,n=0;n<r.length;n++)r[n].drawFramework&&r[n].drawFramework(t);if(!v._glcanvas&&v._has(\\\"gl\\\")&&(v._glcanvas=v._glcontainer.selectAll(\\\".gl-canvas\\\").data([{key:\\\"contextLayer\\\",context:!0,pick:!1},{key:\\\"focusLayer\\\",context:!1,pick:!1},{key:\\\"pickLayer\\\",context:!1,pick:!0}],function(t){return t.key}),v._glcanvas.enter().append(\\\"canvas\\\").attr(\\\"class\\\",function(t){return\\\"gl-canvas gl-canvas-\\\"+t.key.replace(\\\"Layer\\\",\\\"\\\")}).style({position:\\\"absolute\\\",top:0,left:0,overflow:\\\"visible\\\",\\\"pointer-events\\\":\\\"none\\\"})),v._glcanvas){v._glcanvas.attr(\\\"width\\\",v.width).attr(\\\"height\\\",v.height);var i=v._glcanvas.data()[0].regl;if(i&&(Math.floor(v.width)!==i._gl.drawingBufferWidth||Math.floor(v.height)!==i._gl.drawingBufferHeight)){var a=\\\"WebGL context buffer and canvas dimensions do not match due to browser/WebGL bug.\\\";if(!A)return o.log(a+\\\" Clearing graph and plotting again.\\\"),h.cleanPlot([],{},t._fullData,v),h.supplyDefaults(t),v=t._fullLayout,h.doCalcdata(t),A++,e();o.error(a)}}return\\\"h\\\"===v.modebar.orientation?v._modebardiv.style(\\\"height\\\",null).style(\\\"width\\\",\\\"100%\\\"):v._modebardiv.style(\\\"width\\\",null).style(\\\"height\\\",v.height+\\\"px\\\"),h.previousPromises(t)},M,function(){if(h.didMarginChange(w,v._size))return o.syncOrAsync([M,T.layoutStyles],t)}];y&&E.push(function(){if(b)return o.syncOrAsync([u.getComponentMethod(\\\"shapes\\\",\\\"calcAutorange\\\"),u.getComponentMethod(\\\"annotations\\\",\\\"calcAutorange\\\"),S],t);S()}),E.push(T.layoutStyles),y&&E.push(function(){return d.draw(t,f?\\\"\\\":\\\"redraw\\\")}),E.push(T.drawData,T.finalDraw,m,h.addLinks,h.rehover,h.redrag,h.doAutoMargin,h.previousPromises);var L=o.syncOrAsync(E,t);return L&&L.then||(L=Promise.resolve()),L.then(function(){return C(t),t})},r.purge=function(t){var e=(t=o.getGraphDiv(t))._fullLayout||{},r=t._fullData||[];return h.cleanPlot([],{},r,e),h.purge(t),l.purge(t),e._container&&e._container.remove(),delete t._context,t},r.react=function(t,e,n,i){var a,l,c=(t=o.getGraphDiv(t))._fullData,p=t._fullLayout;if(o.isPlotDiv(t)&&c&&p){if(o.isPlainObject(e)){var d=e;e=d.data,n=d.layout,i=d.config,a=d.frames}var g=!1;if(i){var v=o.extendDeep({},t._context);t._context=void 0,O(t,i),g=function t(e,r){var n;for(n in e)if(\\\"_\\\"!==n.charAt(0)){var i=e[n],a=r[n];if(i!==a)if(o.isPlainObject(i)&&o.isPlainObject(a)){if(t(i,a))return!0}else{if(!Array.isArray(i)||!Array.isArray(a))return!0;if(i.length!==a.length)return!0;for(var s=0;s<i.length;s++)if(i[s]!==a[s]){if(!o.isPlainObject(i[s])||!o.isPlainObject(a[s]))return!0;if(t(i[s],a[s]))return!0}}}}(v,t._context)}t.data=e||[],k.cleanData(t.data),t.layout=n||{},k.cleanLayout(t.layout),function(t,e,r,n){var i,a,l,c,u,f,h,p,d=n._preGUI,g=[],v={};for(i in d){if(u=rt(i,tt)){if(a=u.attr||u.head+\\\".uirevision\\\",(c=(l=s(n,a).get())&&nt(a,e))&&c===l&&(null===(f=d[i])&&(f=void 0),ot(p=(h=s(e,i)).get(),f))){void 0===p&&\\\"autorange\\\"===i.substr(i.length-9)&&g.push(i.substr(0,i.length-10)),h.set(N(s(n,i).get()));continue}}else o.warn(\\\"unrecognized GUI edit: \\\"+i);delete d[i],\\\"range[\\\"===i.substr(i.length-8,6)&&(v[i.substr(0,i.length-9)]=1)}for(var m=0;m<g.length;m++){var y=g[m];if(v[y]){var x=s(e,y).get();x&&delete x.autorange}}var b=n._tracePreGUI;for(var _ in b){var w,k=b[_],T=null;for(i in k){if(!T){var A=it(_,r);if(A<0){delete b[_];break}var M=at(_,t,(w=r[A]._fullInput).index);if(M<0){delete b[_];break}T=t[M]}if(u=rt(i,et)){if(u.attr?c=(l=s(n,u.attr).get())&&nt(u.attr,e):(l=w.uirevision,void 0===(c=T.uirevision)&&(c=e.uirevision)),c&&c===l&&(null===(f=k[i])&&(f=void 0),ot(p=(h=s(T,i)).get(),f))){h.set(N(s(w,i).get()));continue}}else o.warn(\\\"unrecognized GUI edit: \\\"+i+\\\" in trace uid \\\"+_);delete k[i]}}}(t.data,t.layout,c,p),h.supplyDefaults(t,{skipUpdateCalc:!0});var m=t._fullData,y=t._fullLayout,x=void 0===y.datarevision,b=y.transition,_=function(t,e,r,n,i){var a=A.layoutFlags();return a.arrays={},a.rangesAltered={},a.nChanges=0,a.nChangesAnim=0,st(e,r,[],{getValObject:function(t){return f.getLayoutValObject(r,t)},flags:a,immutable:n,transition:i,gd:t}),(a.plot||a.calc)&&(a.layoutReplot=!0),i&&a.nChanges&&a.nChangesAnim&&(a.anim=a.nChanges===a.nChangesAnim?\\\"all\\\":\\\"some\\\"),a}(t,p,y,x,b),w=_.newDataRevision,M=function(t,e,r,n,i,a){var o=e.length===r.length;if(!i&&!o)return{fullReplot:!0,calc:!0};var s,l,c=A.traceFlags();c.arrays={},c.nChanges=0,c.nChangesAnim=0;var u={getValObject:function(t){return f.getTraceValObject(l,t)},flags:c,immutable:n,transition:i,newDataRevision:a,gd:t},p={};for(s=0;s<e.length;s++)if(r[s]){if(l=r[s]._fullInput,h.hasMakesDataTransform(l)&&(l=r[s]),p[l.uid])continue;p[l.uid]=1,st(e[s]._fullInput,l,[],u)}return(c.calc||c.plot)&&(c.fullReplot=!0),i&&c.nChanges&&c.nChangesAnim&&(c.anim=c.nChanges===c.nChangesAnim&&o?\\\"all\\\":\\\"some\\\"),c}(t,c,m,x,b,w);J(t)&&(_.layoutReplot=!0),M.calc||_.calc?t.calcdata=void 0:h.supplyDefaultsUpdateCalc(t.calcdata,m);var S=[];if(a&&(t._transitionData={},h.createTransitionData(t),S.push(function(){return r.addFrames(t,a)})),y.transition&&!g&&(M.anim||_.anim))h.doCalcdata(t),T.doAutoRangeAndConstraints(t),S.push(function(){return h.transitionFromReact(t,M,_,p)});else if(M.fullReplot||_.layoutReplot||g)t._fullLayout._skipDefaults=!0,S.push(r.plot);else{for(var E in _.arrays){var L=_.arrays[E];if(L.length){var z=u.getComponentMethod(E,\\\"drawOne\\\");if(z!==o.noop)for(var I=0;I<L.length;I++)z(t,L[I]);else{var D=u.getComponentMethod(E,\\\"draw\\\");if(D===o.noop)throw new Error(\\\"cannot draw components: \\\"+E);D(t)}}}S.push(h.previousPromises),M.style&&S.push(T.doTraceStyle),(M.colorbars||_.colorbars)&&S.push(T.doColorBars),_.legend&&S.push(T.doLegend),_.layoutstyle&&S.push(T.layoutStyles),_.axrange&&Y(S),_.ticks&&S.push(T.doTicksRelayout),_.modebar&&S.push(T.doModeBar),_.camera&&S.push(T.doCamera),S.push(C)}S.push(h.rehover,h.redrag),(l=o.syncOrAsync(S,t))&&l.then||(l=Promise.resolve(t))}else l=r.newPlot(t,e,n,i);return l.then(function(){return t.emit(\\\"plotly_react\\\",{data:e,layout:n}),t})},r.redraw=function(t){if(t=o.getGraphDiv(t),!o.isPlotDiv(t))throw new Error(\\\"This element is not a Plotly plot: \\\"+t);return k.cleanData(t.data),k.cleanLayout(t.layout),t.calcdata=void 0,r.plot(t).then(function(){return t.emit(\\\"plotly_redraw\\\"),t})},r.relayout=q,r.restyle=B,r.setPlotConfig=function(t){return o.extendFlat(_,t)},r.update=K,r._guiRelayout=Q(q),r._guiRestyle=Q(B),r._guiUpdate=Q(K),r._storeDirectGUIEdit=function(t,e,r){for(var n in r)V(n,s(t,n).get(),r[n],e)}},{\\\"../components/color\\\":580,\\\"../components/drawing\\\":601,\\\"../constants/xmlns_namespaces\\\":681,\\\"../lib\\\":703,\\\"../lib/events\\\":692,\\\"../lib/queue\\\":718,\\\"../lib/svg_text_utils\\\":727,\\\"../plots/cartesian/axes\\\":751,\\\"../plots/cartesian/constants\\\":757,\\\"../plots/cartesian/graph_interact\\\":760,\\\"../plots/cartesian/select\\\":768,\\\"../plots/plots\\\":812,\\\"../plots/polar/legacy\\\":820,\\\"../registry\\\":831,\\\"./edit_types\\\":734,\\\"./helpers\\\":735,\\\"./manage_arrays\\\":737,\\\"./plot_config\\\":739,\\\"./plot_schema\\\":740,\\\"./subroutines\\\":742,d3:157,\\\"fast-isnumeric\\\":224,\\\"has-hover\\\":405}],739:[function(t,e,r){\\\"use strict\\\";var n={staticPlot:{valType:\\\"boolean\\\",dflt:!1},plotlyServerURL:{valType:\\\"string\\\",dflt:\\\"https://plot.ly\\\"},editable:{valType:\\\"boolean\\\",dflt:!1},edits:{annotationPosition:{valType:\\\"boolean\\\",dflt:!1},annotationTail:{valType:\\\"boolean\\\",dflt:!1},annotationText:{valType:\\\"boolean\\\",dflt:!1},axisTitleText:{valType:\\\"boolean\\\",dflt:!1},colorbarPosition:{valType:\\\"boolean\\\",dflt:!1},colorbarTitleText:{valType:\\\"boolean\\\",dflt:!1},legendPosition:{valType:\\\"boolean\\\",dflt:!1},legendText:{valType:\\\"boolean\\\",dflt:!1},shapePosition:{valType:\\\"boolean\\\",dflt:!1},titleText:{valType:\\\"boolean\\\",dflt:!1}},autosizable:{valType:\\\"boolean\\\",dflt:!1},responsive:{valType:\\\"boolean\\\",dflt:!1},fillFrame:{valType:\\\"boolean\\\",dflt:!1},frameMargins:{valType:\\\"number\\\",dflt:0,min:0,max:.5},scrollZoom:{valType:\\\"flaglist\\\",flags:[\\\"cartesian\\\",\\\"gl3d\\\",\\\"geo\\\",\\\"mapbox\\\"],extras:[!0,!1],dflt:\\\"gl3d+geo+mapbox\\\"},doubleClick:{valType:\\\"enumerated\\\",values:[!1,\\\"reset\\\",\\\"autosize\\\",\\\"reset+autosize\\\"],dflt:\\\"reset+autosize\\\"},showAxisDragHandles:{valType:\\\"boolean\\\",dflt:!0},showAxisRangeEntryBoxes:{valType:\\\"boolean\\\",dflt:!0},showTips:{valType:\\\"boolean\\\",dflt:!0},showLink:{valType:\\\"boolean\\\",dflt:!1},linkText:{valType:\\\"string\\\",dflt:\\\"Edit chart\\\",noBlank:!0},sendData:{valType:\\\"boolean\\\",dflt:!0},showSources:{valType:\\\"any\\\",dflt:!1},displayModeBar:{valType:\\\"enumerated\\\",values:[\\\"hover\\\",!0,!1],dflt:\\\"hover\\\"},showSendToCloud:{valType:\\\"boolean\\\",dflt:!1},modeBarButtonsToRemove:{valType:\\\"any\\\",dflt:[]},modeBarButtonsToAdd:{valType:\\\"any\\\",dflt:[]},modeBarButtons:{valType:\\\"any\\\",dflt:!1},toImageButtonOptions:{valType:\\\"any\\\",dflt:{}},displaylogo:{valType:\\\"boolean\\\",dflt:!0},watermark:{valType:\\\"boolean\\\",dflt:!1},plotGlPixelRatio:{valType:\\\"number\\\",dflt:2,min:1,max:4},setBackground:{valType:\\\"any\\\",dflt:\\\"transparent\\\"},topojsonURL:{valType:\\\"string\\\",noBlank:!0,dflt:\\\"https://cdn.plot.ly/\\\"},mapboxAccessToken:{valType:\\\"string\\\",dflt:null},logging:{valType:\\\"boolean\\\",dflt:1},queueLength:{valType:\\\"integer\\\",min:0,dflt:0},globalTransforms:{valType:\\\"any\\\",dflt:[]},locale:{valType:\\\"string\\\",dflt:\\\"en-US\\\"},locales:{valType:\\\"any\\\",dflt:{}}},i={};!function t(e,r){for(var n in e){var i=e[n];i.valType?r[n]=i.dflt:(r[n]||(r[n]={}),t(i,r[n]))}}(n,i),e.exports={configAttributes:n,dfltConfig:i}},{}],740:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../registry\\\"),i=t(\\\"../lib\\\"),a=t(\\\"../plots/attributes\\\"),o=t(\\\"../plots/layout_attributes\\\"),s=t(\\\"../plots/frame_attributes\\\"),l=t(\\\"../plots/animation_attributes\\\"),c=t(\\\"./plot_config\\\").configAttributes,u=t(\\\"../plots/polar/legacy/area_attributes\\\"),f=t(\\\"../plots/polar/legacy/axis_attributes\\\"),h=t(\\\"./edit_types\\\"),p=i.extendFlat,d=i.extendDeepAll,g=i.isPlainObject,v=i.isArrayOrTypedArray,m=i.nestedProperty,y=i.valObjectMeta,x=\\\"_isSubplotObj\\\",b=\\\"_isLinkedToArray\\\",_=[x,b,\\\"_arrayAttrRegexps\\\",\\\"_deprecated\\\"];function w(t,e,r){if(!t)return!1;if(t._isLinkedToArray)if(k(e[r]))r++;else if(r<e.length)return!1;for(;r<e.length;r++){var n=t[e[r]];if(!g(n))break;if(t=n,r===e.length-1)break;if(t._isLinkedToArray){if(!k(e[++r]))return!1}else if(\\\"info_array\\\"===t.valType){var i=e[++r];if(!k(i))return!1;var a=t.items;if(Array.isArray(a)){if(i>=a.length)return!1;if(2===t.dimensions){if(r++,e.length===r)return t;var o=e[r];if(!k(o))return!1;t=a[i][o]}else t=a[i]}else t=a}}return t}function k(t){return t===Math.round(t)&&t>=0}function T(t){return function(t){r.crawl(t,function(t,e,n){r.isValObject(t)?\\\"data_array\\\"===t.valType?(t.role=\\\"data\\\",n[e+\\\"src\\\"]={valType:\\\"string\\\",editType:\\\"none\\\"}):!0===t.arrayOk&&(n[e+\\\"src\\\"]={valType:\\\"string\\\",editType:\\\"none\\\"}):g(t)&&(t.role=\\\"object\\\")})}(t),function(t){r.crawl(t,function(t,e,r){if(!t)return;var n=t[b];if(!n)return;delete t[b],r[e]={items:{}},r[e].items[n]=t,r[e].role=\\\"object\\\"})}(t),function(t){!function t(e){for(var r in e)if(g(e[r]))t(e[r]);else if(Array.isArray(e[r]))for(var n=0;n<e[r].length;n++)t(e[r][n]);else e[r]instanceof RegExp&&(e[r]=e[r].toString())}(t)}(t),t}function A(t,e,r){var n=m(t,r),i=d({},e.layoutAttributes);i[x]=!0,n.set(i)}function M(t,e,r){var n=m(t,r);n.set(d(n.get()||{},e))}r.IS_SUBPLOT_OBJ=x,r.IS_LINKED_TO_ARRAY=b,r.DEPRECATED=\\\"_deprecated\\\",r.UNDERSCORE_ATTRS=_,r.get=function(){var t={};n.allTypes.concat(\\\"area\\\").forEach(function(e){t[e]=function(t){var e,i;\\\"area\\\"===t?(e={attributes:u},i={}):(e=n.modules[t]._module,i=e.basePlotModule);var o={type:null},s=d({},a),l=d({},e.attributes);r.crawl(l,function(t,e,r,n,i){m(s,i).set(void 0),void 0===t&&m(l,i).set(void 0)}),d(o,s),n.traceIs(t,\\\"noOpacity\\\")&&delete o.opacity;n.traceIs(t,\\\"showLegend\\\")||(delete o.showlegend,delete o.legendgroup);n.traceIs(t,\\\"noHover\\\")&&(delete o.hoverinfo,delete o.hoverlabel);e.selectPoints||delete o.selectedpoints;d(o,l),i.attributes&&d(o,i.attributes);o.type=t;var c={meta:e.meta||{},categories:e.categories||{},type:t,attributes:T(o)};if(e.layoutAttributes){var f={};d(f,e.layoutAttributes),c.layoutAttributes=T(f)}return c}(e)});var e,i={};return Object.keys(n.transformsRegistry).forEach(function(t){i[t]=function(t){var e=n.transformsRegistry[t],r=d({},e.attributes);return Object.keys(n.componentsRegistry).forEach(function(e){var i=n.componentsRegistry[e];i.schema&&i.schema.transforms&&i.schema.transforms[t]&&Object.keys(i.schema.transforms[t]).forEach(function(e){M(r,i.schema.transforms[t][e],e)})}),{attributes:T(r)}}(t)}),{defs:{valObjects:y,metaKeys:_.concat([\\\"description\\\",\\\"role\\\",\\\"editType\\\",\\\"impliedEdits\\\"]),editType:{traces:h.traces,layout:h.layout},impliedEdits:{}},traces:t,layout:function(){var t,e,r={};for(t in d(r,o),n.subplotsRegistry)if((e=n.subplotsRegistry[t]).layoutAttributes)if(Array.isArray(e.attr))for(var i=0;i<e.attr.length;i++)A(r,e,e.attr[i]);else{var a=\\\"subplot\\\"===e.attr?e.name:e.attr;A(r,e,a)}for(t in r=function(t){return p(t,{radialaxis:f.radialaxis,angularaxis:f.angularaxis}),p(t,f.layout),t}(r),n.componentsRegistry){var s=(e=n.componentsRegistry[t]).schema;if(s&&(s.subplots||s.layout)){var l=s.subplots;if(l&&l.xaxis&&!l.yaxis)for(var c in l.xaxis)delete r.yaxis[c]}else\\\"colorscale\\\"===e.name?d(r,e.layoutAttributes):e.layoutAttributes&&M(r,e.layoutAttributes,e.name)}return{layoutAttributes:T(r)}}(),transforms:i,frames:(e={frames:d({},s)},T(e),e.frames),animation:T(l),config:T(c)}},r.crawl=function(t,e,n,i){var a=n||0;i=i||\\\"\\\",Object.keys(t).forEach(function(n){var o=t[n];if(-1===_.indexOf(n)){var s=(i?i+\\\".\\\":\\\"\\\")+n;e(o,n,t,a,s),r.isValObject(o)||g(o)&&\\\"impliedEdits\\\"!==n&&r.crawl(o,e,a+1,s)}})},r.isValObject=function(t){return t&&void 0!==t.valType},r.findArrayAttributes=function(t){var e,n,i=[],o=[],s=[];function l(t,r,a,l){o=o.slice(0,l).concat([r]),s=s.slice(0,l).concat([t&&t._isLinkedToArray]),t&&(\\\"data_array\\\"===t.valType||!0===t.arrayOk)&&!(\\\"colorbar\\\"===o[l-1]&&(\\\"ticktext\\\"===r||\\\"tickvals\\\"===r))&&function t(e,r,a){var l=e[o[r]];var c=a+o[r];if(r===o.length-1)v(l)&&i.push(n+c);else if(s[r]){if(Array.isArray(l))for(var u=0;u<l.length;u++)g(l[u])&&t(l[u],r+1,c+\\\"[\\\"+u+\\\"].\\\")}else g(l)&&t(l,r+1,c+\\\".\\\")}(e,0,\\\"\\\")}e=t,n=\\\"\\\",r.crawl(a,l),t._module&&t._module.attributes&&r.crawl(t._module.attributes,l);var c=t.transforms;if(c)for(var u=0;u<c.length;u++){var f=c[u],h=f._module;h&&(n=\\\"transforms[\\\"+u+\\\"].\\\",e=f,r.crawl(h.attributes,l))}return i},r.getTraceValObject=function(t,e){var r,i,o=e[0],s=1;if(\\\"transforms\\\"===o){if(1===e.length)return a.transforms;var l=t.transforms;if(!Array.isArray(l)||!l.length)return!1;var c=e[1];if(!k(c)||c>=l.length)return!1;i=(r=(n.transformsRegistry[l[c].type]||{}).attributes)&&r[e[2]],s=3}else if(\\\"area\\\"===t.type)i=u[o];else{var f=t._module;if(f||(f=(n.modules[t.type||a.type.dflt]||{})._module),!f)return!1;if(!(i=(r=f.attributes)&&r[o])){var h=f.basePlotModule;h&&h.attributes&&(i=h.attributes[o])}i||(i=a[o])}return w(i,e,s)},r.getLayoutValObject=function(t,e){return w(function(t,e){var r,i,a,s,l=t._basePlotModules;if(l){var c;for(r=0;r<l.length;r++){if((a=l[r]).attrRegex&&a.attrRegex.test(e)){if(a.layoutAttrOverrides)return a.layoutAttrOverrides;!c&&a.layoutAttributes&&(c=a.layoutAttributes)}var u=a.baseLayoutAttrOverrides;if(u&&e in u)return u[e]}if(c)return c}var h=t._modules;if(h)for(r=0;r<h.length;r++)if((s=h[r].layoutAttributes)&&e in s)return s[e];for(i in n.componentsRegistry){if(\\\"colorscale\\\"===(a=n.componentsRegistry[i]).name&&0===e.indexOf(\\\"coloraxis\\\"))return a.layoutAttributes[e];if(!a.schema&&e===a.name)return a.layoutAttributes}if(e in o)return o[e];if(\\\"radialaxis\\\"===e||\\\"angularaxis\\\"===e)return f[e];return f.layout[e]||!1}(t,e[0]),e,1)}},{\\\"../lib\\\":703,\\\"../plots/animation_attributes\\\":746,\\\"../plots/attributes\\\":748,\\\"../plots/frame_attributes\\\":778,\\\"../plots/layout_attributes\\\":803,\\\"../plots/polar/legacy/area_attributes\\\":818,\\\"../plots/polar/legacy/axis_attributes\\\":819,\\\"../registry\\\":831,\\\"./edit_types\\\":734,\\\"./plot_config\\\":739}],741:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../lib\\\"),i=t(\\\"../plots/attributes\\\"),a=\\\"templateitemname\\\",o={name:{valType:\\\"string\\\",editType:\\\"none\\\"}};function s(t){return t&&\\\"string\\\"==typeof t}function l(t){var e=t.length-1;return\\\"s\\\"!==t.charAt(e)&&n.warn(\\\"bad argument to arrayDefaultKey: \\\"+t),t.substr(0,t.length-1)+\\\"defaults\\\"}o[a]={valType:\\\"string\\\",editType:\\\"calc\\\"},r.templatedArray=function(t,e){return e._isLinkedToArray=t,e.name=o.name,e[a]=o[a],e},r.traceTemplater=function(t){var e,r,a={};for(e in t)r=t[e],Array.isArray(r)&&r.length&&(a[e]=0);return{newTrace:function(o){var s={type:e=n.coerce(o,{},i,\\\"type\\\"),_template:null};if(e in a){r=t[e];var l=a[e]%r.length;a[e]++,s._template=r[l]}return s}}},r.newContainer=function(t,e,r){var i=t._template,a=i&&(i[e]||r&&i[r]);return n.isPlainObject(a)||(a=null),t[e]={_template:a}},r.arrayTemplater=function(t,e,r){var n=t._template,i=n&&n[l(e)],o=n&&n[e];Array.isArray(o)&&o.length||(o=[]);var c={};return{newItem:function(t){var e={name:t.name,_input:t},n=e[a]=t[a];if(!s(n))return e._template=i,e;for(var l=0;l<o.length;l++){var u=o[l];if(u.name===n)return c[n]=1,e._template=u,e}return e[r]=t[r]||!1,e._template=!1,e},defaultItems:function(){for(var t=[],e=0;e<o.length;e++){var r=o[e],n=r.name;if(s(n)&&!c[n]){var i={_template:r,name:n,_input:{_templateitemname:n}};i[a]=r[a],t.push(i),c[n]=1}}return t}}},r.arrayDefaultKey=l,r.arrayEditor=function(t,e,r){var i=(n.nestedProperty(t,e).get()||[]).length,o=r._index,s=o>=i&&(r._input||{})._templateitemname;s&&(o=i);var l,c=e+\\\"[\\\"+o+\\\"]\\\";function u(){l={},s&&(l[c]={},l[c][a]=s)}function f(t,e){s?n.nestedProperty(l[c],t).set(e):l[c+\\\".\\\"+t]=e}function h(){var t=l;return u(),t}return u(),{modifyBase:function(t,e){l[t]=e},modifyItem:f,getUpdateObj:h,applyUpdate:function(e,r){e&&f(e,r);var i=h();for(var a in i)n.nestedProperty(t,a).set(i[a])}}}},{\\\"../lib\\\":703,\\\"../plots/attributes\\\":748}],742:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../registry\\\"),a=t(\\\"../plots/plots\\\"),o=t(\\\"../lib\\\"),s=t(\\\"../lib/clear_gl_canvases\\\"),l=t(\\\"../components/color\\\"),c=t(\\\"../components/drawing\\\"),u=t(\\\"../components/titles\\\"),f=t(\\\"../components/modebar\\\"),h=t(\\\"../plots/cartesian/axes\\\"),p=t(\\\"../constants/alignment\\\"),d=t(\\\"../plots/cartesian/constraints\\\"),g=d.enforce,v=d.clean,m=t(\\\"../plots/cartesian/autorange\\\").doAutoRange,y=\\\"start\\\",x=\\\"middle\\\",b=\\\"end\\\";function _(t,e,r){for(var n=0;n<r.length;n++){var i=r[n][0],a=r[n][1];if(!(i[0]>=t[1]||i[1]<=t[0])&&(a[0]<e[1]&&a[1]>e[0]))return!0}return!1}function w(t){var e,i,a,s,u,d,g=t._fullLayout,v=g._size,m=v.p,y=h.list(t,\\\"\\\",!0);if(g._paperdiv.style({width:t._context.responsive&&g.autosize&&!t._context._hasZeroWidth&&!t.layout.width?\\\"100%\\\":g.width+\\\"px\\\",height:t._context.responsive&&g.autosize&&!t._context._hasZeroHeight&&!t.layout.height?\\\"100%\\\":g.height+\\\"px\\\"}).selectAll(\\\".main-svg\\\").call(c.setSize,g.width,g.height),t._context.setBackground(t,g.paper_bgcolor),r.drawMainTitle(t),f.manage(t),!g._has(\\\"cartesian\\\"))return t._promises.length&&Promise.all(t._promises);function x(t,e,r){var n=t._lw/2;return\\\"x\\\"===t._id.charAt(0)?e?\\\"top\\\"===r?e._offset-m-n:e._offset+e._length+m+n:v.t+v.h*(1-(t.position||0))+n%1:e?\\\"right\\\"===r?e._offset+e._length+m+n:e._offset-m-n:v.l+v.w*(t.position||0)+n%1}for(e=0;e<y.length;e++){var b=(s=y[e])._anchorAxis;s._linepositions={},s._lw=c.crispRound(t,s.linewidth,1),s._mainLinePosition=x(s,b,s.side),s._mainMirrorPosition=s.mirror&&b?x(s,b,p.OPPOSITE_SIDE[s.side]):null}var w=[],T=[],M=[],S=1===l.opacity(g.paper_bgcolor)&&1===l.opacity(g.plot_bgcolor)&&g.paper_bgcolor===g.plot_bgcolor;for(i in g._plots)if((a=g._plots[i]).mainplot)a.bg&&a.bg.remove(),a.bg=void 0;else{var E=a.xaxis.domain,C=a.yaxis.domain,L=a.plotgroup;if(_(E,C,M)){var z=L.node(),O=a.bg=o.ensureSingle(L,\\\"rect\\\",\\\"bg\\\");z.insertBefore(O.node(),z.childNodes[0]),T.push(i)}else L.select(\\\"rect.bg\\\").remove(),M.push([E,C]),S||(w.push(i),T.push(i))}var I,D,P,R,F,B,N,j,V,U,H,q,G,Y=g._bgLayer.selectAll(\\\".bg\\\").data(w);for(Y.enter().append(\\\"rect\\\").classed(\\\"bg\\\",!0),Y.exit().remove(),Y.each(function(t){g._plots[t].bg=n.select(this)}),e=0;e<T.length;e++)a=g._plots[T[e]],u=a.xaxis,d=a.yaxis,a.bg&&a.bg.call(c.setRect,u._offset-m,d._offset-m,u._length+2*m,d._length+2*m).call(l.fill,g.plot_bgcolor).style(\\\"stroke-width\\\",0);if(!g._hasOnlyLargeSploms)for(i in g._plots){a=g._plots[i],u=a.xaxis,d=a.yaxis;var W,X,Z=a.clipId=\\\"clip\\\"+g._uid+i+\\\"plot\\\",$=o.ensureSingleById(g._clips,\\\"clipPath\\\",Z,function(t){t.classed(\\\"plotclip\\\",!0).append(\\\"rect\\\")});a.clipRect=$.select(\\\"rect\\\").attr({width:u._length,height:d._length}),c.setTranslate(a.plot,u._offset,d._offset),a._hasClipOnAxisFalse?(W=null,X=Z):(W=Z,X=null),c.setClipUrl(a.plot,W,t),a.layerClipId=X}function J(t){return\\\"M\\\"+I+\\\",\\\"+t+\\\"H\\\"+D}function K(t){return\\\"M\\\"+u._offset+\\\",\\\"+t+\\\"h\\\"+u._length}function Q(t){return\\\"M\\\"+t+\\\",\\\"+j+\\\"V\\\"+N}function tt(t){return\\\"M\\\"+t+\\\",\\\"+d._offset+\\\"v\\\"+d._length}function et(t,e,r){if(!t.showline||i!==t._mainSubplot)return\\\"\\\";if(!t._anchorAxis)return r(t._mainLinePosition);var n=e(t._mainLinePosition);return t.mirror&&(n+=e(t._mainMirrorPosition)),n}for(i in g._plots){a=g._plots[i],u=a.xaxis,d=a.yaxis;var rt=\\\"M0,0\\\";k(u,i)&&(F=A(u,\\\"left\\\",d,y),I=u._offset-(F?m+F:0),B=A(u,\\\"right\\\",d,y),D=u._offset+u._length+(B?m+B:0),P=x(u,d,\\\"bottom\\\"),R=x(u,d,\\\"top\\\"),!(G=!u._anchorAxis||i!==u._mainSubplot)||\\\"allticks\\\"!==u.mirror&&\\\"all\\\"!==u.mirror||(u._linepositions[i]=[P,R]),rt=et(u,J,K),G&&u.showline&&(\\\"all\\\"===u.mirror||\\\"allticks\\\"===u.mirror)&&(rt+=J(P)+J(R)),a.xlines.style(\\\"stroke-width\\\",u._lw+\\\"px\\\").call(l.stroke,u.showline?u.linecolor:\\\"rgba(0,0,0,0)\\\")),a.xlines.attr(\\\"d\\\",rt);var nt=\\\"M0,0\\\";k(d,i)&&(H=A(d,\\\"bottom\\\",u,y),N=d._offset+d._length+(H?m:0),q=A(d,\\\"top\\\",u,y),j=d._offset-(q?m:0),V=x(d,u,\\\"left\\\"),U=x(d,u,\\\"right\\\"),!(G=!d._anchorAxis||i!==d._mainSubplot)||\\\"allticks\\\"!==d.mirror&&\\\"all\\\"!==d.mirror||(d._linepositions[i]=[V,U]),nt=et(d,Q,tt),G&&d.showline&&(\\\"all\\\"===d.mirror||\\\"allticks\\\"===d.mirror)&&(nt+=Q(V)+Q(U)),a.ylines.style(\\\"stroke-width\\\",d._lw+\\\"px\\\").call(l.stroke,d.showline?d.linecolor:\\\"rgba(0,0,0,0)\\\")),a.ylines.attr(\\\"d\\\",nt)}return h.makeClipPaths(t),t._promises.length&&Promise.all(t._promises)}function k(t,e){return(t.ticks||t.showline)&&(e===t._mainSubplot||\\\"all\\\"===t.mirror||\\\"allticks\\\"===t.mirror)}function T(t,e,r){if(!r.showline||!r._lw)return!1;if(\\\"all\\\"===r.mirror||\\\"allticks\\\"===r.mirror)return!0;var n=r._anchorAxis;if(!n)return!1;var i=p.FROM_BL[e];return r.side===e?n.domain[i]===t.domain[i]:r.mirror&&n.domain[1-i]===t.domain[1-i]}function A(t,e,r,n){if(T(t,e,r))return r._lw;for(var i=0;i<n.length;i++){var a=n[i];if(a._mainAxis===r._mainAxis&&T(t,e,a))return a._lw}return 0}r.layoutStyles=function(t){return o.syncOrAsync([a.doAutoMargin,w],t)},r.drawMainTitle=function(t){var e=t._fullLayout,r=function(t){var e=t.title,r=x;o.isRightAnchor(e)?r=b:o.isLeftAnchor(e)&&(r=y);return r}(e),n=function(t){var e=t.title,r=\\\"0em\\\";o.isTopAnchor(e)?r=p.CAP_SHIFT+\\\"em\\\":o.isMiddleAnchor(e)&&(r=p.MID_SHIFT+\\\"em\\\");return r}(e);u.draw(t,\\\"gtitle\\\",{propContainer:e,propName:\\\"title.text\\\",placeholder:e._dfltTitle.plot,attributes:{x:function(t,e){var r=t.title,n=t._size,i=0;e===y?i=r.pad.l:e===b&&(i=-r.pad.r);switch(r.xref){case\\\"paper\\\":return n.l+n.w*r.x+i;case\\\"container\\\":default:return t.width*r.x+i}}(e,r),y:function(t,e){var r=t.title,n=t._size,i=0;\\\"0em\\\"!==e&&e?e===p.CAP_SHIFT+\\\"em\\\"&&(i=r.pad.t):i=-r.pad.b;if(\\\"auto\\\"===r.y)return n.t/2;switch(r.yref){case\\\"paper\\\":return n.t+n.h-n.h*r.y+i;case\\\"container\\\":default:return t.height-t.height*r.y+i}}(e,n),\\\"text-anchor\\\":r,dy:n}})},r.doTraceStyle=function(t){var e,n=t.calcdata,o=[];for(e=0;e<n.length;e++){var l=n[e],c=l[0]||{},u=c.trace||{},f=u._module||{},h=f.arraysToCalcdata;h&&h(l,u);var p=f.editStyle;p&&o.push({fn:p,cd0:c})}if(o.length){for(e=0;e<o.length;e++){var d=o[e];d.fn(t,d.cd0)}s(t),r.redrawReglTraces(t)}return a.style(t),i.getComponentMethod(\\\"legend\\\",\\\"draw\\\")(t),a.previousPromises(t)},r.doColorBars=function(t){return i.getComponentMethod(\\\"colorbar\\\",\\\"draw\\\")(t),a.previousPromises(t)},r.layoutReplot=function(t){var e=t.layout;return t.layout=void 0,i.call(\\\"plot\\\",t,\\\"\\\",e)},r.doLegend=function(t){return i.getComponentMethod(\\\"legend\\\",\\\"draw\\\")(t),a.previousPromises(t)},r.doTicksRelayout=function(t){return h.draw(t,\\\"redraw\\\"),t._fullLayout._hasOnlyLargeSploms&&(i.subplotsRegistry.splom.updateGrid(t),s(t),r.redrawReglTraces(t)),r.drawMainTitle(t),a.previousPromises(t)},r.doModeBar=function(t){var e=t._fullLayout;f.manage(t);for(var r=0;r<e._basePlotModules.length;r++){var n=e._basePlotModules[r].updateFx;n&&n(t)}return a.previousPromises(t)},r.doCamera=function(t){for(var e=t._fullLayout,r=e._subplots.gl3d,n=0;n<r.length;n++){var i=e[r[n]],a=i._scene,o=i.camera;a.setCamera(o)}},r.drawData=function(t){var e=t._fullLayout;s(t);for(var n=e._basePlotModules,o=0;o<n.length;o++)n[o].plot(t);return r.redrawReglTraces(t),a.style(t),i.getComponentMethod(\\\"shapes\\\",\\\"draw\\\")(t),i.getComponentMethod(\\\"annotations\\\",\\\"draw\\\")(t),e._replotting=!1,a.previousPromises(t)},r.redrawReglTraces=function(t){var e=t._fullLayout;if(e._has(\\\"regl\\\")){var r,n,i=t._fullData,a=[],s=[];for(e._hasOnlyLargeSploms&&e._splomGrid.draw(),r=0;r<i.length;r++){var l=i[r];!0===l.visible&&0!==l._length&&(\\\"splom\\\"===l.type?e._splomScenes[l.uid].draw():\\\"scattergl\\\"===l.type?o.pushUnique(a,l.xaxis+l.yaxis):\\\"scatterpolargl\\\"===l.type&&o.pushUnique(s,l.subplot))}for(r=0;r<a.length;r++)(n=e._plots[a[r]])._scene&&n._scene.draw();for(r=0;r<s.length;r++)(n=e[s[r]]._subplot)._scene&&n._scene.draw()}},r.doAutoRangeAndConstraints=function(t){for(var e,r,n=t._fullLayout,i=h.list(t,\\\"\\\",!0),a=n._axisMatchGroups||[],s=0;s<i.length;s++)e=i[s],v(t,e),m(t,e);g(t);t:for(var l=0;l<a.length;l++){var c,u=a[l],f=null;for(c in u){if(!1===(e=h.getFromId(t,c)).autorange)continue t;r=o.simpleMap(e.range,e.r2l),f?f[0]<f[1]?(f[0]=Math.min(f[0],r[0]),f[1]=Math.max(f[1],r[1])):(f[0]=Math.max(f[0],r[0]),f[1]=Math.min(f[1],r[1])):f=r}for(c in u)(e=h.getFromId(t,c)).range=o.simpleMap(f,e.l2r),e._input.range=e.range.slice(),e.setScale()}},r.finalDraw=function(t){i.getComponentMethod(\\\"shapes\\\",\\\"draw\\\")(t),i.getComponentMethod(\\\"images\\\",\\\"draw\\\")(t),i.getComponentMethod(\\\"annotations\\\",\\\"draw\\\")(t),i.getComponentMethod(\\\"rangeslider\\\",\\\"draw\\\")(t),i.getComponentMethod(\\\"rangeselector\\\",\\\"draw\\\")(t)},r.drawMarginPushers=function(t){i.getComponentMethod(\\\"legend\\\",\\\"draw\\\")(t),i.getComponentMethod(\\\"rangeselector\\\",\\\"draw\\\")(t),i.getComponentMethod(\\\"sliders\\\",\\\"draw\\\")(t),i.getComponentMethod(\\\"updatemenus\\\",\\\"draw\\\")(t),i.getComponentMethod(\\\"colorbar\\\",\\\"draw\\\")(t)}},{\\\"../components/color\\\":580,\\\"../components/drawing\\\":601,\\\"../components/modebar\\\":639,\\\"../components/titles\\\":668,\\\"../constants/alignment\\\":675,\\\"../lib\\\":703,\\\"../lib/clear_gl_canvases\\\":688,\\\"../plots/cartesian/autorange\\\":750,\\\"../plots/cartesian/axes\\\":751,\\\"../plots/cartesian/constraints\\\":758,\\\"../plots/plots\\\":812,\\\"../registry\\\":831,d3:157}],743:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../lib\\\"),i=n.isPlainObject,a=t(\\\"./plot_schema\\\"),o=t(\\\"../plots/plots\\\"),s=t(\\\"../plots/attributes\\\"),l=t(\\\"./plot_template\\\"),c=t(\\\"./plot_config\\\").dfltConfig;function u(t,e){t=n.extendDeep({},t);var r,a,o=Object.keys(t).sort();function s(e,r,n){if(i(r)&&i(e))u(e,r);else if(Array.isArray(r)&&Array.isArray(e)){var o=l.arrayTemplater({_template:t},n);for(a=0;a<r.length;a++){var s=r[a],c=o.newItem(s)._template;c&&u(c,s)}var f=o.defaultItems();for(a=0;a<f.length;a++)r.push(f[a]._template);for(a=0;a<r.length;a++)delete r[a].templateitemname}}for(r=0;r<o.length;r++){var c=o[r],h=t[c];if(c in e?s(h,e[c],c):e[c]=h,f(c)===c)for(var p in e){var d=f(p);p===d||d!==c||p in t||s(h,e[p],c)}}}function f(t){return t.replace(/[0-9]+$/,\\\"\\\")}function h(t,e,r,a,o){var s=o&&r(o);for(var c in t){var u=t[c],d=p(t,c,a),g=p(t,c,o),v=r(g);if(!v){var m=f(c);m!==c&&(v=r(g=p(t,m,o)))}if((!s||s!==v)&&!(!v||v._noTemplating||\\\"data_array\\\"===v.valType||v.arrayOk&&Array.isArray(u)))if(!v.valType&&i(u))h(u,e,r,d,g);else if(v._isLinkedToArray&&Array.isArray(u))for(var y=!1,x=0,b={},_=0;_<u.length;_++){var w=u[_];if(i(w)){var k=w.name;if(k)b[k]||(h(w,e,r,p(u,x,d),p(u,x,g)),x++,b[k]=1);else if(!y){var T=p(t,l.arrayDefaultKey(c),a),A=p(u,x,d);h(w,e,r,A,p(u,x,g));var M=n.nestedProperty(e,A);n.nestedProperty(e,T).set(M.get()),M.set(null),y=!0}}}else{n.nestedProperty(e,d).set(u)}}}function p(t,e,r){return r?Array.isArray(t)?r+\\\"[\\\"+e+\\\"]\\\":r+\\\".\\\"+e:e}function d(t){for(var e=0;e<t.length;e++)if(i(t[e]))return!0}function g(t){var e;switch(t.code){case\\\"data\\\":e=\\\"The template has no key data.\\\";break;case\\\"layout\\\":e=\\\"The template has no key layout.\\\";break;case\\\"missing\\\":e=t.path?\\\"There are no templates for item \\\"+t.path+\\\" with name \\\"+t.templateitemname:\\\"There are no templates for trace \\\"+t.index+\\\", of type \\\"+t.traceType+\\\".\\\";break;case\\\"unused\\\":e=t.path?\\\"The template item at \\\"+t.path+\\\" was not used in constructing the plot.\\\":t.dataCount?\\\"Some of the templates of type \\\"+t.traceType+\\\" were not used. The template has \\\"+t.templateCount+\\\" traces, the data only has \\\"+t.dataCount+\\\" of this type.\\\":\\\"The template has \\\"+t.templateCount+\\\" traces of type \\\"+t.traceType+\\\" but there are none in the data.\\\";break;case\\\"reused\\\":e=\\\"Some of the templates of type \\\"+t.traceType+\\\" were used more than once. The template has \\\"+t.templateCount+\\\" traces, the data has \\\"+t.dataCount+\\\" of this type.\\\"}return t.msg=e,t}r.makeTemplate=function(t){t=n.isPlainObject(t)?t:n.getGraphDiv(t),t=n.extendDeep({_context:c},{data:t.data,layout:t.layout}),o.supplyDefaults(t);var e=t.data||[],r=t.layout||{};r._basePlotModules=t._fullLayout._basePlotModules,r._modules=t._fullLayout._modules;var l={data:{},layout:{}};e.forEach(function(t){var e={};h(t,e,function(t,e){return a.getTraceValObject(t,n.nestedProperty({},e).parts)}.bind(null,t));var r=n.coerce(t,{},s,\\\"type\\\"),i=l.data[r];i||(i=l.data[r]=[]),i.push(e)}),h(r,l.layout,function(t,e){return a.getLayoutValObject(t,n.nestedProperty({},e).parts)}.bind(null,r)),delete l.layout.template;var f=r.template;if(i(f)){var p,d,g,v,m,y,x=f.layout;i(x)&&u(x,l.layout);var b=f.data;if(i(b)){for(d in l.data)if(g=b[d],Array.isArray(g)){for(y=(m=l.data[d]).length,v=g.length,p=0;p<y;p++)u(g[p%v],m[p]);for(p=y;p<v;p++)m.push(n.extendDeep({},g[p]))}for(d in b)d in l.data||(l.data[d]=n.extendDeep([],b[d]))}}return l},r.validateTemplate=function(t,e){var r=n.extendDeep({},{_context:c,data:t.data,layout:t.layout}),a=r.layout||{};i(e)||(e=a.template||{});var s=e.layout,l=e.data,u=[];r.layout=a,r.layout.template=e,o.supplyDefaults(r);var h=r._fullLayout,v=r._fullData,m={};if(i(s)?(!function t(e,r){for(var n in e)if(\\\"_\\\"!==n.charAt(0)&&i(e[n])){var a,o=f(n),s=[];for(a=0;a<r.length;a++)s.push(p(e,n,r[a])),o!==n&&s.push(p(e,o,r[a]));for(a=0;a<s.length;a++)m[s[a]]=1;t(e[n],s)}}(h,[\\\"layout\\\"]),function t(e,r){for(var n in e)if(-1===n.indexOf(\\\"defaults\\\")&&i(e[n])){var a=p(e,n,r);m[a]?t(e[n],a):u.push({code:\\\"unused\\\",path:a})}}(s,\\\"layout\\\")):u.push({code:\\\"layout\\\"}),i(l)){for(var y,x={},b=0;b<v.length;b++){var _=v[b];x[y=_.type]=(x[y]||0)+1,_._fullInput._template||u.push({code:\\\"missing\\\",index:_._fullInput.index,traceType:y})}for(y in l){var w=l[y].length,k=x[y]||0;w>k?u.push({code:\\\"unused\\\",traceType:y,templateCount:w,dataCount:k}):k>w&&u.push({code:\\\"reused\\\",traceType:y,templateCount:w,dataCount:k})}}else u.push({code:\\\"data\\\"});if(function t(e,r){for(var n in e)if(\\\"_\\\"!==n.charAt(0)){var a=e[n],o=p(e,n,r);i(a)?(Array.isArray(e)&&!1===a._template&&a.templateitemname&&u.push({code:\\\"missing\\\",path:o,templateitemname:a.templateitemname}),t(a,o)):Array.isArray(a)&&d(a)&&t(a,o)}}({data:v,layout:h},\\\"\\\"),u.length)return u.map(g)}},{\\\"../lib\\\":703,\\\"../plots/attributes\\\":748,\\\"../plots/plots\\\":812,\\\"./plot_config\\\":739,\\\"./plot_schema\\\":740,\\\"./plot_template\\\":741}],744:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"./plot_api\\\"),a=t(\\\"../lib\\\"),o=t(\\\"../snapshot/helpers\\\"),s=t(\\\"../snapshot/tosvg\\\"),l=t(\\\"../snapshot/svgtoimg\\\"),c={format:{valType:\\\"enumerated\\\",values:[\\\"png\\\",\\\"jpeg\\\",\\\"webp\\\",\\\"svg\\\"],dflt:\\\"png\\\"},width:{valType:\\\"number\\\",min:1},height:{valType:\\\"number\\\",min:1},scale:{valType:\\\"number\\\",min:0,dflt:1},setBackground:{valType:\\\"any\\\",dflt:!1},imageDataOnly:{valType:\\\"boolean\\\",dflt:!1}},u=/^data:image\\\\/\\\\w+;base64,/;e.exports=function(t,e){var r,f,h,p;function d(t){return!(t in e)||a.validate(e[t],c[t])}if(e=e||{},a.isPlainObject(t)?(r=t.data||[],f=t.layout||{},h=t.config||{},p={}):(t=a.getGraphDiv(t),r=a.extendDeep([],t.data),f=a.extendDeep({},t.layout),h=t._context,p=t._fullLayout||{}),!d(\\\"width\\\")&&null!==e.width||!d(\\\"height\\\")&&null!==e.height)throw new Error(\\\"Height and width should be pixel values.\\\");if(!d(\\\"format\\\"))throw new Error(\\\"Image format is not jpeg, png, svg or webp.\\\");var g={};function v(t,r){return a.coerce(e,g,c,t,r)}var m=v(\\\"format\\\"),y=v(\\\"width\\\"),x=v(\\\"height\\\"),b=v(\\\"scale\\\"),_=v(\\\"setBackground\\\"),w=v(\\\"imageDataOnly\\\"),k=document.createElement(\\\"div\\\");k.style.position=\\\"absolute\\\",k.style.left=\\\"-5000px\\\",document.body.appendChild(k);var T=a.extendFlat({},f);y?T.width=y:null===e.width&&n(p.width)&&(T.width=p.width),x?T.height=x:null===e.height&&n(p.height)&&(T.height=p.height);var A=a.extendFlat({},h,{_exportedPlot:!0,staticPlot:!0,setBackground:_}),M=o.getRedrawFunc(k);function S(){return new Promise(function(t){setTimeout(t,o.getDelay(k._fullLayout))})}function E(){return new Promise(function(t,e){var r=s(k,m,b),n=k._fullLayout.width,o=k._fullLayout.height;if(i.purge(k),document.body.removeChild(k),\\\"svg\\\"===m)return t(w?r:\\\"data:image/svg+xml,\\\"+encodeURIComponent(r));var c=document.createElement(\\\"canvas\\\");c.id=a.randstr(),l({format:m,width:n,height:o,scale:b,canvas:c,svg:r,promise:!0}).then(t).catch(e)})}return new Promise(function(t,e){i.plot(k,r,T,A).then(M).then(S).then(E).then(function(e){t(function(t){return w?t.replace(u,\\\"\\\"):t}(e))}).catch(function(t){e(t)})})}},{\\\"../lib\\\":703,\\\"../snapshot/helpers\\\":835,\\\"../snapshot/svgtoimg\\\":837,\\\"../snapshot/tosvg\\\":839,\\\"./plot_api\\\":738,\\\"fast-isnumeric\\\":224}],745:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../lib\\\"),i=t(\\\"../plots/plots\\\"),a=t(\\\"./plot_schema\\\"),o=t(\\\"./plot_config\\\").dfltConfig,s=n.isPlainObject,l=Array.isArray,c=n.isArrayOrTypedArray;function u(t,e,r,i,a,o){o=o||[];for(var f=Object.keys(t),h=0;h<f.length;h++){var v=f[h];if(\\\"transforms\\\"!==v){var m=o.slice();m.push(v);var y=t[v],x=e[v],b=g(r,v),_=\\\"info_array\\\"===(b||{}).valType,w=\\\"colorscale\\\"===(b||{}).valType,k=(b||{}).items;if(d(r,v))if(s(y)&&s(x))u(y,x,b,i,a,m);else if(_&&l(y)){y.length>x.length&&i.push(p(\\\"unused\\\",a,m.concat(x.length)));var T,A,M,S,E,C=x.length,L=Array.isArray(k);if(L&&(C=Math.min(C,k.length)),2===b.dimensions)for(A=0;A<C;A++)if(l(y[A])){y[A].length>x[A].length&&i.push(p(\\\"unused\\\",a,m.concat(A,x[A].length)));var z=x[A].length;for(T=0;T<(L?Math.min(z,k[A].length):z);T++)M=L?k[A][T]:k,S=y[A][T],E=x[A][T],n.validate(S,M)?E!==S&&E!==+S&&i.push(p(\\\"dynamic\\\",a,m.concat(A,T),S,E)):i.push(p(\\\"value\\\",a,m.concat(A,T),S))}else i.push(p(\\\"array\\\",a,m.concat(A),y[A]));else for(A=0;A<C;A++)M=L?k[A]:k,S=y[A],E=x[A],n.validate(S,M)?E!==S&&E!==+S&&i.push(p(\\\"dynamic\\\",a,m.concat(A),S,E)):i.push(p(\\\"value\\\",a,m.concat(A),S))}else if(b.items&&!_&&l(y)){var O,I,D=k[Object.keys(k)[0]],P=[];for(O=0;O<x.length;O++){var R=x[O]._index||O;if((I=m.slice()).push(R),s(y[R])&&s(x[O])){P.push(R);var F=y[R],B=x[O];s(F)&&!1!==F.visible&&!1===B.visible?i.push(p(\\\"invisible\\\",a,I)):u(F,B,D,i,a,I)}}for(O=0;O<y.length;O++)(I=m.slice()).push(O),s(y[O])?-1===P.indexOf(O)&&i.push(p(\\\"unused\\\",a,I)):i.push(p(\\\"object\\\",a,I,y[O]))}else!s(y)&&s(x)?i.push(p(\\\"object\\\",a,m,y)):c(y)||!c(x)||_||w?v in e?n.validate(y,b)?\\\"enumerated\\\"===b.valType&&(b.coerceNumber&&y!==+x||y!==x)&&i.push(p(\\\"dynamic\\\",a,m,y,x)):i.push(p(\\\"value\\\",a,m,y)):i.push(p(\\\"unused\\\",a,m,y)):i.push(p(\\\"array\\\",a,m,y));else i.push(p(\\\"schema\\\",a,m))}}return i}e.exports=function(t,e){var r,c,f=a.get(),h=[],d={_context:n.extendFlat({},o)};l(t)?(d.data=n.extendDeep([],t),r=t):(d.data=[],r=[],h.push(p(\\\"array\\\",\\\"data\\\"))),s(e)?(d.layout=n.extendDeep({},e),c=e):(d.layout={},c={},arguments.length>1&&h.push(p(\\\"object\\\",\\\"layout\\\"))),i.supplyDefaults(d);for(var g=d._fullData,v=r.length,m=0;m<v;m++){var y=r[m],x=[\\\"data\\\",m];if(s(y)){var b=g[m],_=b.type,w=f.traces[_].attributes;w.type={valType:\\\"enumerated\\\",values:[_]},!1===b.visible&&!1!==y.visible&&h.push(p(\\\"invisible\\\",x)),u(y,b,w,h,x);var k=y.transforms,T=b.transforms;if(k){l(k)||h.push(p(\\\"array\\\",x,[\\\"transforms\\\"])),x.push(\\\"transforms\\\");for(var A=0;A<k.length;A++){var M=[\\\"transforms\\\",A],S=k[A].type;if(s(k[A])){var E=f.transforms[S]?f.transforms[S].attributes:{};E.type={valType:\\\"enumerated\\\",values:Object.keys(f.transforms)},u(k[A],T[A],E,h,x,M)}else h.push(p(\\\"object\\\",x,M))}}}else h.push(p(\\\"object\\\",x))}return u(c,d._fullLayout,function(t,e){for(var r=t.layout.layoutAttributes,i=0;i<e.length;i++){var a=e[i],o=t.traces[a.type],s=o.layoutAttributes;s&&(a.subplot?n.extendFlat(r[o.attributes.subplot.dflt],s):n.extendFlat(r,s))}return r}(f,g),h,\\\"layout\\\"),0===h.length?void 0:h};var f={object:function(t,e){return(\\\"layout\\\"===t&&\\\"\\\"===e?\\\"The layout argument\\\":\\\"data\\\"===t[0]&&\\\"\\\"===e?\\\"Trace \\\"+t[1]+\\\" in the data argument\\\":h(t)+\\\"key \\\"+e)+\\\" must be linked to an object container\\\"},array:function(t,e){return(\\\"data\\\"===t?\\\"The data argument\\\":h(t)+\\\"key \\\"+e)+\\\" must be linked to an array container\\\"},schema:function(t,e){return h(t)+\\\"key \\\"+e+\\\" is not part of the schema\\\"},unused:function(t,e,r){var n=s(r)?\\\"container\\\":\\\"key\\\";return h(t)+n+\\\" \\\"+e+\\\" did not get coerced\\\"},dynamic:function(t,e,r,n){return[h(t)+\\\"key\\\",e,\\\"(set to '\\\"+r+\\\"')\\\",\\\"got reset to\\\",\\\"'\\\"+n+\\\"'\\\",\\\"during defaults.\\\"].join(\\\" \\\")},invisible:function(t,e){return(e?h(t)+\\\"item \\\"+e:\\\"Trace \\\"+t[1])+\\\" got defaulted to be not visible\\\"},value:function(t,e,r){return[h(t)+\\\"key \\\"+e,\\\"is set to an invalid value (\\\"+r+\\\")\\\"].join(\\\" \\\")}};function h(t){return l(t)?\\\"In data trace \\\"+t[1]+\\\", \\\":\\\"In \\\"+t+\\\", \\\"}function p(t,e,r,i,a){var o,s;r=r||\\\"\\\",l(e)?(o=e[0],s=e[1]):(o=e,s=null);var c=function(t){if(!l(t))return String(t);for(var e=\\\"\\\",r=0;r<t.length;r++){var n=t[r];\\\"number\\\"==typeof n?e=e.substr(0,e.length-1)+\\\"[\\\"+n+\\\"]\\\":e+=n,r<t.length-1&&(e+=\\\".\\\")}return e}(r),u=f[t](e,c,i,a);return n.log(u),{code:t,container:o,trace:s,path:r,astr:c,msg:u}}function d(t,e){var r=m(e),n=r.keyMinusId,i=r.id;return!!(n in t&&t[n]._isSubplotObj&&i)||e in t}function g(t,e){return e in t?t[e]:t[m(e).keyMinusId]}var v=n.counterRegex(\\\"([a-z]+)\\\");function m(t){var e=t.match(v);return{keyMinusId:e&&e[1],id:e&&e[2]}}},{\\\"../lib\\\":703,\\\"../plots/plots\\\":812,\\\"./plot_config\\\":739,\\\"./plot_schema\\\":740}],746:[function(t,e,r){\\\"use strict\\\";e.exports={mode:{valType:\\\"enumerated\\\",dflt:\\\"afterall\\\",values:[\\\"immediate\\\",\\\"next\\\",\\\"afterall\\\"]},direction:{valType:\\\"enumerated\\\",values:[\\\"forward\\\",\\\"reverse\\\"],dflt:\\\"forward\\\"},fromcurrent:{valType:\\\"boolean\\\",dflt:!1},frame:{duration:{valType:\\\"number\\\",min:0,dflt:500},redraw:{valType:\\\"boolean\\\",dflt:!0}},transition:{duration:{valType:\\\"number\\\",min:0,dflt:500,editType:\\\"none\\\"},easing:{valType:\\\"enumerated\\\",dflt:\\\"cubic-in-out\\\",values:[\\\"linear\\\",\\\"quad\\\",\\\"cubic\\\",\\\"sin\\\",\\\"exp\\\",\\\"circle\\\",\\\"elastic\\\",\\\"back\\\",\\\"bounce\\\",\\\"linear-in\\\",\\\"quad-in\\\",\\\"cubic-in\\\",\\\"sin-in\\\",\\\"exp-in\\\",\\\"circle-in\\\",\\\"elastic-in\\\",\\\"back-in\\\",\\\"bounce-in\\\",\\\"linear-out\\\",\\\"quad-out\\\",\\\"cubic-out\\\",\\\"sin-out\\\",\\\"exp-out\\\",\\\"circle-out\\\",\\\"elastic-out\\\",\\\"back-out\\\",\\\"bounce-out\\\",\\\"linear-in-out\\\",\\\"quad-in-out\\\",\\\"cubic-in-out\\\",\\\"sin-in-out\\\",\\\"exp-in-out\\\",\\\"circle-in-out\\\",\\\"elastic-in-out\\\",\\\"back-in-out\\\",\\\"bounce-in-out\\\"],editType:\\\"none\\\"},ordering:{valType:\\\"enumerated\\\",values:[\\\"layout first\\\",\\\"traces first\\\"],dflt:\\\"layout first\\\",editType:\\\"none\\\"}}}},{}],747:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../lib\\\"),i=t(\\\"../plot_api/plot_template\\\");e.exports=function(t,e,r){var a,o,s=r.name,l=r.inclusionAttr||\\\"visible\\\",c=e[s],u=n.isArrayOrTypedArray(t[s])?t[s]:[],f=e[s]=[],h=i.arrayTemplater(e,s,l);for(a=0;a<u.length;a++){var p=u[a];n.isPlainObject(p)?o=h.newItem(p):(o=h.newItem({}))[l]=!1,o._index=a,!1!==o[l]&&r.handleItemDefaults(p,o,e,r),f.push(o)}var d=h.defaultItems();for(a=0;a<d.length;a++)(o=d[a])._index=f.length,r.handleItemDefaults({},o,e,r,{}),f.push(o);if(n.isArrayOrTypedArray(c)){var g=Math.min(c.length,f.length);for(a=0;a<g;a++)n.relinkPrivateKeys(f[a],c[a])}return f}},{\\\"../lib\\\":703,\\\"../plot_api/plot_template\\\":741}],748:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../components/fx/attributes\\\");e.exports={type:{valType:\\\"enumerated\\\",values:[],dflt:\\\"scatter\\\",editType:\\\"calc+clearAxisTypes\\\",_noTemplating:!0},visible:{valType:\\\"enumerated\\\",values:[!0,!1,\\\"legendonly\\\"],dflt:!0,editType:\\\"calc\\\"},showlegend:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"style\\\"},legendgroup:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"style\\\"},opacity:{valType:\\\"number\\\",min:0,max:1,dflt:1,editType:\\\"style\\\"},name:{valType:\\\"string\\\",editType:\\\"style\\\"},uid:{valType:\\\"string\\\",editType:\\\"plot\\\",anim:!0},ids:{valType:\\\"data_array\\\",editType:\\\"calc\\\",anim:!0},customdata:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},meta:{valType:\\\"any\\\",arrayOk:!0,editType:\\\"plot\\\"},selectedpoints:{valType:\\\"any\\\",editType:\\\"calc\\\"},hoverinfo:{valType:\\\"flaglist\\\",flags:[\\\"x\\\",\\\"y\\\",\\\"z\\\",\\\"text\\\",\\\"name\\\"],extras:[\\\"all\\\",\\\"none\\\",\\\"skip\\\"],arrayOk:!0,dflt:\\\"all\\\",editType:\\\"none\\\"},hoverlabel:n.hoverlabel,stream:{token:{valType:\\\"string\\\",noBlank:!0,strict:!0,editType:\\\"calc\\\"},maxpoints:{valType:\\\"number\\\",min:0,max:1e4,dflt:500,editType:\\\"calc\\\"},editType:\\\"calc\\\"},transforms:{_isLinkedToArray:\\\"transform\\\",editType:\\\"calc\\\"},uirevision:{valType:\\\"any\\\",editType:\\\"none\\\"}}},{\\\"../components/fx/attributes\\\":610}],749:[function(t,e,r){\\\"use strict\\\";e.exports={xaxis:{valType:\\\"subplotid\\\",dflt:\\\"x\\\",editType:\\\"calc+clearAxisTypes\\\"},yaxis:{valType:\\\"subplotid\\\",dflt:\\\"y\\\",editType:\\\"calc+clearAxisTypes\\\"}}},{}],750:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../constants/numerical\\\").FP_SAFE,o=t(\\\"../../registry\\\");function s(t,e){var r,n,a=[],o=l(e),s=c(t,e),u=s.min,f=s.max;if(0===u.length||0===f.length)return i.simpleMap(e.range,e.r2l);var h=u[0].val,p=f[0].val;for(r=1;r<u.length&&h===p;r++)h=Math.min(h,u[r].val);for(r=1;r<f.length&&h===p;r++)p=Math.max(p,f[r].val);var d=!1;if(e.range){var g=i.simpleMap(e.range,e.r2l);d=g[1]<g[0]}\\\"reversed\\\"===e.autorange&&(d=!0,e.autorange=!0);var v,m,y,x,b,_,w=e.rangemode,k=\\\"tozero\\\"===w,T=\\\"nonnegative\\\"===w,A=e._length,M=A/10,S=0;for(r=0;r<u.length;r++)for(v=u[r],n=0;n<f.length;n++)(_=(m=f[n]).val-v.val)>0&&((b=A-o(v)-o(m))>M?_/b>S&&(y=v,x=m,S=_/b):_/A>S&&(y={val:v.val,pad:0},x={val:m.val,pad:0},S=_/A));if(h===p){var E=h-1,C=h+1;if(k)if(0===h)a=[0,1];else{var L=(h>0?f:u).reduce(function(t,e){return Math.max(t,o(e))},0),z=h/(1-Math.min(.5,L/A));a=h>0?[0,z]:[z,0]}else a=T?[Math.max(0,E),Math.max(1,C)]:[E,C]}else k?(y.val>=0&&(y={val:0,pad:0}),x.val<=0&&(x={val:0,pad:0})):T&&(y.val-S*o(y)<0&&(y={val:0,pad:0}),x.val<=0&&(x={val:1,pad:0})),S=(x.val-y.val)/(A-o(y)-o(x)),a=[y.val-S*o(y),x.val+S*o(x)];return d&&a.reverse(),i.simpleMap(a,e.l2r||Number)}function l(t){var e=t._length/20;return\\\"domain\\\"===t.constrain&&t._inputDomain&&(e*=(t._inputDomain[1]-t._inputDomain[0])/(t.domain[1]-t.domain[0])),function(t){return t.pad+(t.extrapad?e:0)}}function c(t,e){var r,n,i,a=e._id,o=t._fullData,s=t._fullLayout,l=[],c=[];function h(t,e){for(r=0;r<e.length;r++){var o=t[e[r]],s=(o._extremes||{})[a];if(!0===o.visible&&s){for(n=0;n<s.min.length;n++)i=s.min[n],u(l,i.val,i.pad,{extrapad:i.extrapad});for(n=0;n<s.max.length;n++)i=s.max[n],f(c,i.val,i.pad,{extrapad:i.extrapad})}}}return h(o,e._traceIndices),h(s.annotations||[],e._annIndices||[]),h(s.shapes||[],e._shapeIndices||[]),{min:l,max:c}}function u(t,e,r,n){h(t,e,r,n,d)}function f(t,e,r,n){h(t,e,r,n,g)}function h(t,e,r,n,i){for(var a=n.tozero,o=n.extrapad,s=!0,l=0;l<t.length&&s;l++){var c=t[l];if(i(c.val,e)&&c.pad>=r&&(c.extrapad||!o)){s=!1;break}i(e,c.val)&&c.pad<=r&&(o||!c.extrapad)&&(t.splice(l,1),l--)}if(s){var u=a&&0===e;t.push({val:e,pad:u?0:r,extrapad:!u&&o})}}function p(t){return n(t)&&Math.abs(t)<a}function d(t,e){return t<=e}function g(t,e){return t>=e}e.exports={getAutoRange:s,makePadFn:l,doAutoRange:function(t,e){if(e.setScale(),e.autorange){e.range=s(t,e),e._r=e.range.slice(),e._rl=i.simpleMap(e._r,e.r2l);var r=e._input,n={};n[e._attr+\\\".range\\\"]=e.range,n[e._attr+\\\".autorange\\\"]=e.autorange,o.call(\\\"_storeDirectGUIEdit\\\",t.layout,t._fullLayout._preGUI,n),r.range=e.range.slice(),r.autorange=e.autorange}var a=e._anchorAxis;if(a&&a.rangeslider){var l=a.rangeslider[e._name];l&&\\\"auto\\\"===l.rangemode&&(l.range=s(t,e)),a._input.rangeslider[e._name]=i.extendFlat({},l)}},findExtremes:function(t,e,r){r||(r={});t._m||t.setScale();var i,o,s,l,c,h,d,g,v,m=[],y=[],x=e.length,b=r.padded||!1,_=r.tozero&&(\\\"linear\\\"===t.type||\\\"-\\\"===t.type),w=\\\"log\\\"===t.type,k=!1;function T(t){if(Array.isArray(t))return k=!0,function(e){return Math.max(Number(t[e]||0),0)};var e=Math.max(Number(t||0),0);return function(){return e}}var A=T((t._m>0?r.ppadplus:r.ppadminus)||r.ppad||0),M=T((t._m>0?r.ppadminus:r.ppadplus)||r.ppad||0),S=T(r.vpadplus||r.vpad),E=T(r.vpadminus||r.vpad);if(!k){if(g=1/0,v=-1/0,w)for(i=0;i<x;i++)(o=e[i])<g&&o>0&&(g=o),o>v&&o<a&&(v=o);else for(i=0;i<x;i++)(o=e[i])<g&&o>-a&&(g=o),o>v&&o<a&&(v=o);e=[g,v],x=2}var C={tozero:_,extrapad:b};function L(r){s=e[r],n(s)&&(h=A(r),d=M(r),g=s-E(r),v=s+S(r),w&&g<v/10&&(g=v/10),l=t.c2l(g),c=t.c2l(v),_&&(l=Math.min(0,l),c=Math.max(0,c)),p(l)&&u(m,l,d,C),p(c)&&f(y,c,h,C))}var z=Math.min(6,x);for(i=0;i<z;i++)L(i);for(i=x-1;i>=z;i--)L(i);return{min:m,max:y,opts:r}},concatExtremes:c}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"fast-isnumeric\\\":224}],751:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"fast-isnumeric\\\"),a=t(\\\"../../plots/plots\\\"),o=t(\\\"../../registry\\\"),s=t(\\\"../../lib\\\"),l=t(\\\"../../lib/svg_text_utils\\\"),c=t(\\\"../../components/titles\\\"),u=t(\\\"../../components/color\\\"),f=t(\\\"../../components/drawing\\\"),h=t(\\\"./layout_attributes\\\"),p=t(\\\"./clean_ticks\\\"),d=t(\\\"../../constants/numerical\\\"),g=d.ONEAVGYEAR,v=d.ONEAVGMONTH,m=d.ONEDAY,y=d.ONEHOUR,x=d.ONEMIN,b=d.ONESEC,_=d.MINUS_SIGN,w=d.BADNUM,k=t(\\\"../../constants/alignment\\\").MID_SHIFT,T=t(\\\"../../constants/alignment\\\").LINE_SPACING,A=e.exports={};A.setConvert=t(\\\"./set_convert\\\");var M=t(\\\"./axis_autotype\\\"),S=t(\\\"./axis_ids\\\");A.id2name=S.id2name,A.name2id=S.name2id,A.cleanId=S.cleanId,A.list=S.list,A.listIds=S.listIds,A.getFromId=S.getFromId,A.getFromTrace=S.getFromTrace;var E=t(\\\"./autorange\\\");A.getAutoRange=E.getAutoRange,A.findExtremes=E.findExtremes,A.coerceRef=function(t,e,r,n,i,a){var o=n.charAt(n.length-1),l=r._fullLayout._subplots[o+\\\"axis\\\"],c=n+\\\"ref\\\",u={};return i||(i=l[0]||a),a||(a=i),u[c]={valType:\\\"enumerated\\\",values:l.concat(a?[a]:[]),dflt:i},s.coerce(t,e,u,c)},A.coercePosition=function(t,e,r,n,i,a){var o,l;if(\\\"paper\\\"===n||\\\"pixel\\\"===n)o=s.ensureNumber,l=r(i,a);else{var c=A.getFromId(e,n);l=r(i,a=c.fraction2r(a)),o=c.cleanPos}t[i]=o(l)},A.cleanPosition=function(t,e,r){return(\\\"paper\\\"===r||\\\"pixel\\\"===r?s.ensureNumber:A.getFromId(e,r).cleanPos)(t)},A.redrawComponents=function(t,e){e=e||A.listIds(t);var r=t._fullLayout;function n(n,i,a,s){for(var l=o.getComponentMethod(n,i),c={},u=0;u<e.length;u++)for(var f=r[A.id2name(e[u])][a],h=0;h<f.length;h++){var p=f[h];if(!c[p]&&(l(t,p),c[p]=1,s))return}}n(\\\"annotations\\\",\\\"drawOne\\\",\\\"_annIndices\\\"),n(\\\"shapes\\\",\\\"drawOne\\\",\\\"_shapeIndices\\\"),n(\\\"images\\\",\\\"draw\\\",\\\"_imgIndices\\\",!0)};var C=A.getDataConversions=function(t,e,r,n){var i,a=\\\"x\\\"===r||\\\"y\\\"===r||\\\"z\\\"===r?r:n;if(Array.isArray(a)){if(i={type:M(n),_categories:[]},A.setConvert(i),\\\"category\\\"===i.type)for(var o=0;o<n.length;o++)i.d2c(n[o])}else i=A.getFromTrace(t,e,a);return i?{d2c:i.d2c,c2d:i.c2d}:\\\"ids\\\"===a?{d2c:z,c2d:z}:{d2c:L,c2d:L}};function L(t){return+t}function z(t){return String(t)}A.getDataToCoordFunc=function(t,e,r,n){return C(t,e,r,n).d2c},A.counterLetter=function(t){var e=t.charAt(0);return\\\"x\\\"===e?\\\"y\\\":\\\"y\\\"===e?\\\"x\\\":void 0},A.minDtick=function(t,e,r,n){-1===[\\\"log\\\",\\\"category\\\",\\\"multicategory\\\"].indexOf(t.type)&&n?void 0===t._minDtick?(t._minDtick=e,t._forceTick0=r):t._minDtick&&((t._minDtick/e+1e-6)%1<2e-6&&((r-t._forceTick0)/e%1+1.000001)%1<2e-6?(t._minDtick=e,t._forceTick0=r):((e/t._minDtick+1e-6)%1>2e-6||((r-t._forceTick0)/t._minDtick%1+1.000001)%1>2e-6)&&(t._minDtick=0)):t._minDtick=0},A.saveRangeInitial=function(t,e){for(var r=A.list(t,\\\"\\\",!0),n=!1,i=0;i<r.length;i++){var a=r[i],o=void 0===a._rangeInitial,s=o||!(a.range[0]===a._rangeInitial[0]&&a.range[1]===a._rangeInitial[1]);(o&&!1===a.autorange||e&&s)&&(a._rangeInitial=a.range.slice(),n=!0)}return n},A.saveShowSpikeInitial=function(t,e){for(var r=A.list(t,\\\"\\\",!0),n=!1,i=\\\"on\\\",a=0;a<r.length;a++){var o=r[a],s=void 0===o._showSpikeInitial,l=s||!(o.showspikes===o._showspikes);(s||e&&l)&&(o._showSpikeInitial=o.showspikes,n=!0),\\\"on\\\"!==i||o.showspikes||(i=\\\"off\\\")}return t._fullLayout._cartesianSpikesEnabled=i,n},A.autoBin=function(t,e,r,n,a,o){var l,c=s.aggNums(Math.min,null,t),u=s.aggNums(Math.max,null,t);if(\\\"category\\\"===e.type||\\\"multicategory\\\"===e.type)return{start:c-.5,end:u+.5,size:Math.max(1,Math.round(o)||1),_dataSpan:u-c};if(a||(a=e.calendar),l=\\\"log\\\"===e.type?{type:\\\"linear\\\",range:[c,u]}:{type:e.type,range:s.simpleMap([c,u],e.c2r,0,a),calendar:a},A.setConvert(l),o=o&&p.dtick(o,l.type))l.dtick=o,l.tick0=p.tick0(void 0,l.type,a);else{var f;if(r)f=(u-c)/r;else{var h=s.distinctVals(t),d=Math.pow(10,Math.floor(Math.log(h.minDiff)/Math.LN10)),g=d*s.roundUp(h.minDiff/d,[.9,1.9,4.9,9.9],!0);f=Math.max(g,2*s.stdev(t)/Math.pow(t.length,n?.25:.4)),i(f)||(f=1)}A.autoTicks(l,f)}var v,y=l.dtick,x=A.tickIncrement(A.tickFirst(l),y,\\\"reverse\\\",a);if(\\\"number\\\"==typeof y)v=(x=function(t,e,r,n,a){var o=0,s=0,l=0,c=0;function u(e){return(1+100*(e-t)/r.dtick)%100<2}for(var f=0;f<e.length;f++)e[f]%1==0?l++:i(e[f])||c++,u(e[f])&&o++,u(e[f]+r.dtick/2)&&s++;var h=e.length-c;if(l===h&&\\\"date\\\"!==r.type)r.dtick<1?t=n-.5*r.dtick:(t-=.5)+r.dtick<n&&(t+=r.dtick);else if(s<.1*h&&(o>.3*h||u(n)||u(a))){var p=r.dtick/2;t+=t+p<n?p:-p}return t}(x,t,l,c,u))+(1+Math.floor((u-x)/y))*y;else for(\\\"M\\\"===l.dtick.charAt(0)&&(x=function(t,e,r,n,i){var a=s.findExactDates(e,i);if(a.exactDays>.8){var o=Number(r.substr(1));a.exactYears>.8&&o%12==0?t=A.tickIncrement(t,\\\"M6\\\",\\\"reverse\\\")+1.5*m:a.exactMonths>.8?t=A.tickIncrement(t,\\\"M1\\\",\\\"reverse\\\")+15.5*m:t-=m/2;var l=A.tickIncrement(t,r);if(l<=n)return l}return t}(x,t,y,c,a)),v=x,0;v<=u;)v=A.tickIncrement(v,y,!1,a),0;return{start:e.c2r(x,0,a),end:e.c2r(v,0,a),size:y,_dataSpan:u-c}},A.prepTicks=function(t){var e=s.simpleMap(t.range,t.r2l);if(\\\"auto\\\"===t.tickmode||!t.dtick){var r,n=t.nticks;n||(\\\"category\\\"===t.type||\\\"multicategory\\\"===t.type?(r=t.tickfont?1.2*(t.tickfont.size||12):15,n=t._length/r):(r=\\\"y\\\"===t._id.charAt(0)?40:80,n=s.constrain(t._length/r,4,9)+1),\\\"radialaxis\\\"===t._name&&(n*=2)),\\\"array\\\"===t.tickmode&&(n*=100),A.autoTicks(t,Math.abs(e[1]-e[0])/n),t._minDtick>0&&t.dtick<2*t._minDtick&&(t.dtick=t._minDtick,t.tick0=t.l2r(t._forceTick0))}t.tick0||(t.tick0=\\\"date\\\"===t.type?\\\"2000-01-01\\\":0),\\\"date\\\"===t.type&&t.dtick<.1&&(t.dtick=.1),j(t)},A.calcTicks=function(t){A.prepTicks(t);var e=s.simpleMap(t.range,t.r2l);if(\\\"array\\\"===t.tickmode)return function(t){var e=t.tickvals,r=t.ticktext,n=new Array(e.length),i=s.simpleMap(t.range,t.r2l),a=1.0001*i[0]-1e-4*i[1],o=1.0001*i[1]-1e-4*i[0],l=Math.min(a,o),c=Math.max(a,o),u=0;Array.isArray(r)||(r=[]);var f=\\\"category\\\"===t.type?t.d2l_noadd:t.d2l;\\\"log\\\"===t.type&&\\\"L\\\"!==String(t.dtick).charAt(0)&&(t.dtick=\\\"L\\\"+Math.pow(10,Math.floor(Math.min(t.range[0],t.range[1]))-1));for(var h=0;h<e.length;h++){var p=f(e[h]);p>l&&p<c&&(void 0===r[h]?n[u]=A.tickText(t,p):n[u]=V(t,p,String(r[h])),u++)}u<e.length&&n.splice(u,e.length-u);return n}(t);t._tmin=A.tickFirst(t);var r=1.0001*e[0]-1e-4*e[1],n=1.0001*e[1]-1e-4*e[0],i=e[1]<e[0];if(t._tmin<r!==i)return[];var a=[];\\\"category\\\"!==t.type&&\\\"multicategory\\\"!==t.type||(n=i?Math.max(-.5,n):Math.min(t._categories.length-.5,n));for(var o=null,l=Math.max(1e3,t._length||0),c=t._tmin;(i?c>=n:c<=n)&&!(a.length>l||c===o);c=A.tickIncrement(c,t.dtick,i,t.calendar))o=c,a.push(c);rt(t)&&360===Math.abs(e[1]-e[0])&&a.pop(),t._tmax=a[a.length-1],t._prevDateHead=\\\"\\\",t._inCalcTicks=!0;for(var u=new Array(a.length),f=0;f<a.length;f++)u[f]=A.tickText(t,a[f]);return t._inCalcTicks=!1,u};var O=[2,5,10],I=[1,2,3,6,12],D=[1,2,5,10,15,30],P=[1,2,3,7,14],R=[-.046,0,.301,.477,.602,.699,.778,.845,.903,.954,1],F=[-.301,0,.301,.699,1],B=[15,30,45,90,180];function N(t,e,r){return e*s.roundUp(t/e,r)}function j(t){var e=t.dtick;if(t._tickexponent=0,i(e)||\\\"string\\\"==typeof e||(e=1),\\\"category\\\"!==t.type&&\\\"multicategory\\\"!==t.type||(t._tickround=null),\\\"date\\\"===t.type){var r=t.r2l(t.tick0),n=t.l2r(r).replace(/(^-|i)/g,\\\"\\\"),a=n.length;if(\\\"M\\\"===String(e).charAt(0))a>10||\\\"01-01\\\"!==n.substr(5)?t._tickround=\\\"d\\\":t._tickround=+e.substr(1)%12==0?\\\"y\\\":\\\"m\\\";else if(e>=m&&a<=10||e>=15*m)t._tickround=\\\"d\\\";else if(e>=x&&a<=16||e>=y)t._tickround=\\\"M\\\";else if(e>=b&&a<=19||e>=x)t._tickround=\\\"S\\\";else{var o=t.l2r(r+e).replace(/^-/,\\\"\\\").length;t._tickround=Math.max(a,o)-20,t._tickround<0&&(t._tickround=4)}}else if(i(e)||\\\"L\\\"===e.charAt(0)){var s=t.range.map(t.r2d||Number);i(e)||(e=Number(e.substr(1))),t._tickround=2-Math.floor(Math.log(e)/Math.LN10+.01);var l=Math.max(Math.abs(s[0]),Math.abs(s[1])),c=Math.floor(Math.log(l)/Math.LN10+.01);Math.abs(c)>3&&(H(t.exponentformat)&&!q(c)?t._tickexponent=3*Math.round((c-1)/3):t._tickexponent=c)}else t._tickround=null}function V(t,e,r){var n=t.tickfont||{};return{x:e,dx:0,dy:0,text:r||\\\"\\\",fontSize:n.size,font:n.family,fontColor:n.color}}A.autoTicks=function(t,e){var r;function n(t){return Math.pow(t,Math.floor(Math.log(e)/Math.LN10))}if(\\\"date\\\"===t.type){t.tick0=s.dateTick0(t.calendar);var a=2*e;a>g?(e/=g,r=n(10),t.dtick=\\\"M\\\"+12*N(e,r,O)):a>v?(e/=v,t.dtick=\\\"M\\\"+N(e,1,I)):a>m?(t.dtick=N(e,m,P),t.tick0=s.dateTick0(t.calendar,!0)):a>y?t.dtick=N(e,y,I):a>x?t.dtick=N(e,x,D):a>b?t.dtick=N(e,b,D):(r=n(10),t.dtick=N(e,r,O))}else if(\\\"log\\\"===t.type){t.tick0=0;var o=s.simpleMap(t.range,t.r2l);if(e>.7)t.dtick=Math.ceil(e);else if(Math.abs(o[1]-o[0])<1){var l=1.5*Math.abs((o[1]-o[0])/e);e=Math.abs(Math.pow(10,o[1])-Math.pow(10,o[0]))/l,r=n(10),t.dtick=\\\"L\\\"+N(e,r,O)}else t.dtick=e>.3?\\\"D2\\\":\\\"D1\\\"}else\\\"category\\\"===t.type||\\\"multicategory\\\"===t.type?(t.tick0=0,t.dtick=Math.ceil(Math.max(e,1))):rt(t)?(t.tick0=0,r=1,t.dtick=N(e,r,B)):(t.tick0=0,r=n(10),t.dtick=N(e,r,O));if(0===t.dtick&&(t.dtick=1),!i(t.dtick)&&\\\"string\\\"!=typeof t.dtick){var c=t.dtick;throw t.dtick=1,\\\"ax.dtick error: \\\"+String(c)}},A.tickIncrement=function(t,e,r,a){var o=r?-1:1;if(i(e))return t+o*e;var l=e.charAt(0),c=o*Number(e.substr(1));if(\\\"M\\\"===l)return s.incrementMonth(t,c,a);if(\\\"L\\\"===l)return Math.log(Math.pow(10,t)+c)/Math.LN10;if(\\\"D\\\"===l){var u=\\\"D2\\\"===e?F:R,f=t+.01*o,h=s.roundUp(s.mod(f,1),u,r);return Math.floor(f)+Math.log(n.round(Math.pow(10,h),1))/Math.LN10}throw\\\"unrecognized dtick \\\"+String(e)},A.tickFirst=function(t){var e=t.r2l||Number,r=s.simpleMap(t.range,e),a=r[1]<r[0],o=a?Math.floor:Math.ceil,l=1.0001*r[0]-1e-4*r[1],c=t.dtick,u=e(t.tick0);if(i(c)){var f=o((l-u)/c)*c+u;return\\\"category\\\"!==t.type&&\\\"multicategory\\\"!==t.type||(f=s.constrain(f,0,t._categories.length-1)),f}var h=c.charAt(0),p=Number(c.substr(1));if(\\\"M\\\"===h){for(var d,g,v,m=0,y=u;m<10;){if(((d=A.tickIncrement(y,c,a,t.calendar))-l)*(y-l)<=0)return a?Math.min(y,d):Math.max(y,d);g=(l-(y+d)/2)/(d-y),v=h+(Math.abs(Math.round(g))||1)*p,y=A.tickIncrement(y,v,g<0?!a:a,t.calendar),m++}return s.error(\\\"tickFirst did not converge\\\",t),y}if(\\\"L\\\"===h)return Math.log(o((Math.pow(10,l)-u)/p)*p+u)/Math.LN10;if(\\\"D\\\"===h){var x=\\\"D2\\\"===c?F:R,b=s.roundUp(s.mod(l,1),x,a);return Math.floor(l)+Math.log(n.round(Math.pow(10,b),1))/Math.LN10}throw\\\"unrecognized dtick \\\"+String(c)},A.tickText=function(t,e,r){var n,a=V(t,e),o=\\\"array\\\"===t.tickmode,l=r||o,c=t.type,u=\\\"category\\\"===c?t.d2l_noadd:t.d2l;if(o&&Array.isArray(t.ticktext)){var f=s.simpleMap(t.range,t.r2l),h=Math.abs(f[1]-f[0])/1e4;for(n=0;n<t.ticktext.length&&!(Math.abs(e-u(t.tickvals[n]))<h);n++);if(n<t.ticktext.length)return a.text=String(t.ticktext[n]),a}function p(n){if(void 0===n)return!0;if(r)return\\\"none\\\"===n;var i={first:t._tmin,last:t._tmax}[n];return\\\"all\\\"!==n&&e!==i}var d=r?\\\"never\\\":\\\"none\\\"!==t.exponentformat&&p(t.showexponent)?\\\"hide\\\":\\\"\\\";if(\\\"date\\\"===c?function(t,e,r,n){var a=t._tickround,o=r&&t.hoverformat||A.getTickFormat(t);n&&(a=i(a)?4:{y:\\\"m\\\",m:\\\"d\\\",d:\\\"M\\\",M:\\\"S\\\",S:4}[a]);var l,c=s.formatDate(e.x,o,a,t._dateFormat,t.calendar,t._extraFormat),u=c.indexOf(\\\"\\\\n\\\");-1!==u&&(l=c.substr(u+1),c=c.substr(0,u));n&&(\\\"00:00:00\\\"===c||\\\"00:00\\\"===c?(c=l,l=\\\"\\\"):8===c.length&&(c=c.replace(/:00$/,\\\"\\\")));l&&(r?\\\"d\\\"===a?c+=\\\", \\\"+l:c=l+(c?\\\", \\\"+c:\\\"\\\"):t._inCalcTicks&&l===t._prevDateHead||(c+=\\\"<br>\\\"+l,t._prevDateHead=l));e.text=c}(t,a,r,l):\\\"log\\\"===c?function(t,e,r,n,a){var o=t.dtick,l=e.x,c=t.tickformat,u=\\\"string\\\"==typeof o&&o.charAt(0);\\\"never\\\"===a&&(a=\\\"\\\");n&&\\\"L\\\"!==u&&(o=\\\"L3\\\",u=\\\"L\\\");if(c||\\\"L\\\"===u)e.text=G(Math.pow(10,l),t,a,n);else if(i(o)||\\\"D\\\"===u&&s.mod(l+.01,1)<.1){var f=Math.round(l),h=Math.abs(f),p=t.exponentformat;\\\"power\\\"===p||H(p)&&q(f)?(e.text=0===f?1:1===f?\\\"10\\\":\\\"10<sup>\\\"+(f>1?\\\"\\\":_)+h+\\\"</sup>\\\",e.fontSize*=1.25):(\\\"e\\\"===p||\\\"E\\\"===p)&&h>2?e.text=\\\"1\\\"+p+(f>0?\\\"+\\\":_)+h:(e.text=G(Math.pow(10,l),t,\\\"\\\",\\\"fakehover\\\"),\\\"D1\\\"===o&&\\\"y\\\"===t._id.charAt(0)&&(e.dy-=e.fontSize/6))}else{if(\\\"D\\\"!==u)throw\\\"unrecognized dtick \\\"+String(o);e.text=String(Math.round(Math.pow(10,s.mod(l,1)))),e.fontSize*=.75}if(\\\"D1\\\"===t.dtick){var d=String(e.text).charAt(0);\\\"0\\\"!==d&&\\\"1\\\"!==d||(\\\"y\\\"===t._id.charAt(0)?e.dx-=e.fontSize/4:(e.dy+=e.fontSize/2,e.dx+=(t.range[1]>t.range[0]?1:-1)*e.fontSize*(l<0?.5:.25)))}}(t,a,0,l,d):\\\"category\\\"===c?function(t,e){var r=t._categories[Math.round(e.x)];void 0===r&&(r=\\\"\\\");e.text=String(r)}(t,a):\\\"multicategory\\\"===c?function(t,e,r){var n=Math.round(e.x),i=t._categories[n]||[],a=void 0===i[1]?\\\"\\\":String(i[1]),o=void 0===i[0]?\\\"\\\":String(i[0]);r?e.text=o+\\\" - \\\"+a:(e.text=a,e.text2=o)}(t,a,r):rt(t)?function(t,e,r,n,i){if(\\\"radians\\\"!==t.thetaunit||r)e.text=G(e.x,t,i,n);else{var a=e.x/180;if(0===a)e.text=\\\"0\\\";else{var o=function(t){function e(t,e){return Math.abs(t-e)<=1e-6}var r=function(t){var r=1;for(;!e(Math.round(t*r)/r,t);)r*=10;return r}(t),n=t*r,i=Math.abs(function t(r,n){return e(n,0)?r:t(n,r%n)}(n,r));return[Math.round(n/i),Math.round(r/i)]}(a);if(o[1]>=100)e.text=G(s.deg2rad(e.x),t,i,n);else{var l=e.x<0;1===o[1]?1===o[0]?e.text=\\\"\\\\u03c0\\\":e.text=o[0]+\\\"\\\\u03c0\\\":e.text=[\\\"<sup>\\\",o[0],\\\"</sup>\\\",\\\"\\\\u2044\\\",\\\"<sub>\\\",o[1],\\\"</sub>\\\",\\\"\\\\u03c0\\\"].join(\\\"\\\"),l&&(e.text=_+e.text)}}}}(t,a,r,l,d):function(t,e,r,n,i){\\\"never\\\"===i?i=\\\"\\\":\\\"all\\\"===t.showexponent&&Math.abs(e.x/t.dtick)<1e-6&&(i=\\\"hide\\\");e.text=G(e.x,t,i,n)}(t,a,0,l,d),t.tickprefix&&!p(t.showtickprefix)&&(a.text=t.tickprefix+a.text),t.ticksuffix&&!p(t.showticksuffix)&&(a.text+=t.ticksuffix),\\\"boundaries\\\"===t.tickson||t.showdividers){var g=function(e){var r=t.l2p(e);return r>=0&&r<=t._length?e:null};a.xbnd=[g(a.x-.5),g(a.x+t.dtick-.5)]}return a},A.hoverLabelText=function(t,e,r){if(r!==w&&r!==e)return A.hoverLabelText(t,e)+\\\" - \\\"+A.hoverLabelText(t,r);var n=\\\"log\\\"===t.type&&e<=0,i=A.tickText(t,t.c2l(n?-e:e),\\\"hover\\\").text;return n?0===e?\\\"0\\\":_+i:i};var U=[\\\"f\\\",\\\"p\\\",\\\"n\\\",\\\"\\\\u03bc\\\",\\\"m\\\",\\\"\\\",\\\"k\\\",\\\"M\\\",\\\"G\\\",\\\"T\\\"];function H(t){return\\\"SI\\\"===t||\\\"B\\\"===t}function q(t){return t>14||t<-15}function G(t,e,r,n){var a=t<0,o=e._tickround,l=r||e.exponentformat||\\\"B\\\",c=e._tickexponent,u=A.getTickFormat(e),f=e.separatethousands;if(n){var h={exponentformat:l,dtick:\\\"none\\\"===e.showexponent?e.dtick:i(t)&&Math.abs(t)||1,range:\\\"none\\\"===e.showexponent?e.range.map(e.r2d):[0,t||1]};j(h),o=(Number(h._tickround)||0)+4,c=h._tickexponent,e.hoverformat&&(u=e.hoverformat)}if(u)return e._numFormat(u)(t).replace(/-/g,_);var p,d=Math.pow(10,-o)/2;if(\\\"none\\\"===l&&(c=0),(t=Math.abs(t))<d)t=\\\"0\\\",a=!1;else{if(t+=d,c&&(t*=Math.pow(10,-c),o+=c),0===o)t=String(Math.floor(t));else if(o<0){t=(t=String(Math.round(t))).substr(0,t.length+o);for(var g=o;g<0;g++)t+=\\\"0\\\"}else{var v=(t=String(t)).indexOf(\\\".\\\")+1;v&&(t=t.substr(0,v+o).replace(/\\\\.?0+$/,\\\"\\\"))}t=s.numSeparate(t,e._separators,f)}c&&\\\"hide\\\"!==l&&(H(l)&&q(c)&&(l=\\\"power\\\"),p=c<0?_+-c:\\\"power\\\"!==l?\\\"+\\\"+c:String(c),\\\"e\\\"===l||\\\"E\\\"===l?t+=l+p:\\\"power\\\"===l?t+=\\\"\\\\xd710<sup>\\\"+p+\\\"</sup>\\\":\\\"B\\\"===l&&9===c?t+=\\\"B\\\":H(l)&&(t+=U[c/3+5]));return a?_+t:t}function Y(t,e){var r=t._id.charAt(0),n=t._tickAngles[e]||0,i=s.deg2rad(n),a=Math.sin(i),o=Math.cos(i),l=0,c=0;return t._selections[e].each(function(){var t=$(this),e=f.bBox(t.node()),r=e.width,n=e.height;l=Math.max(l,o*r,a*n),c=Math.max(c,a*r,o*n)}),{x:c,y:l}[r]}function W(t){return[t.text,t.x,t.axInfo,t.font,t.fontSize,t.fontColor].join(\\\"_\\\")}function X(t,e){var r,n=t._fullLayout._size,i=e._id.charAt(0),a=e.side;return\\\"free\\\"!==e.anchor?r=S.getFromId(t,e.anchor):\\\"x\\\"===i?r={_offset:n.t+(1-(e.position||0))*n.h,_length:0}:\\\"y\\\"===i&&(r={_offset:n.l+(e.position||0)*n.w,_length:0}),\\\"top\\\"===a||\\\"left\\\"===a?r._offset:\\\"bottom\\\"===a||\\\"right\\\"===a?r._offset+r._length:void 0}function Z(t,e){var r=t.l2p(e);return r>1&&r<t._length-1}function $(t){var e=n.select(t),r=e.select(\\\".text-math-group\\\");return r.empty()?e.select(\\\"text\\\"):r}function J(t){return t._id+\\\".automargin\\\"}function K(t){return t._id+\\\".rangeslider\\\"}function Q(t,e){for(var r=0;r<e.length;r++)-1===t.indexOf(e[r])&&t.push(e[r])}function tt(t,e,r){var n,i,a=[],o=[],l=t.layout;for(n=0;n<e.length;n++)a.push(A.getFromId(t,e[n]));for(n=0;n<r.length;n++)o.push(A.getFromId(t,r[n]));var c=Object.keys(h),u=[\\\"anchor\\\",\\\"domain\\\",\\\"overlaying\\\",\\\"position\\\",\\\"side\\\",\\\"tickangle\\\",\\\"editType\\\"],f=[\\\"linear\\\",\\\"log\\\"];for(n=0;n<c.length;n++){var p=c[n],d=a[0][p],g=o[0][p],v=!0,m=!1,y=!1;if(\\\"_\\\"!==p.charAt(0)&&\\\"function\\\"!=typeof d&&-1===u.indexOf(p)){for(i=1;i<a.length&&v;i++){var x=a[i][p];\\\"type\\\"===p&&-1!==f.indexOf(d)&&-1!==f.indexOf(x)&&d!==x?m=!0:x!==d&&(v=!1)}for(i=1;i<o.length&&v;i++){var b=o[i][p];\\\"type\\\"===p&&-1!==f.indexOf(g)&&-1!==f.indexOf(b)&&g!==b?y=!0:o[i][p]!==g&&(v=!1)}v&&(m&&(l[a[0]._name].type=\\\"linear\\\"),y&&(l[o[0]._name].type=\\\"linear\\\"),et(l,p,a,o,t._fullLayout._dfltTitle))}}for(n=0;n<t._fullLayout.annotations.length;n++){var _=t._fullLayout.annotations[n];-1!==e.indexOf(_.xref)&&-1!==r.indexOf(_.yref)&&s.swapAttrs(l.annotations[n],[\\\"?\\\"])}}function et(t,e,r,n,i){var a,o=s.nestedProperty,l=o(t[r[0]._name],e).get(),c=o(t[n[0]._name],e).get();for(\\\"title\\\"===e&&(l&&l.text===i.x&&(l.text=i.y),c&&c.text===i.y&&(c.text=i.x)),a=0;a<r.length;a++)o(t,r[a]._name+\\\".\\\"+e).set(c);for(a=0;a<n.length;a++)o(t,n[a]._name+\\\".\\\"+e).set(l)}function rt(t){return\\\"angularaxis\\\"===t._id}A.getTickFormat=function(t){var e,r,n,i,a,o,s,l;function c(t){return\\\"string\\\"!=typeof t?t:Number(t.replace(\\\"M\\\",\\\"\\\"))*v}function u(t,e){var r=[\\\"L\\\",\\\"D\\\"];if(typeof t==typeof e){if(\\\"number\\\"==typeof t)return t-e;var n=r.indexOf(t.charAt(0)),i=r.indexOf(e.charAt(0));return n===i?Number(t.replace(/(L|D)/g,\\\"\\\"))-Number(e.replace(/(L|D)/g,\\\"\\\")):n-i}return\\\"number\\\"==typeof t?1:-1}function f(t,e){var r=null===e[0],n=null===e[1],i=u(t,e[0])>=0,a=u(t,e[1])<=0;return(r||i)&&(n||a)}if(t.tickformatstops&&t.tickformatstops.length>0)switch(t.type){case\\\"date\\\":case\\\"linear\\\":for(e=0;e<t.tickformatstops.length;e++)if((n=t.tickformatstops[e]).enabled&&(i=t.dtick,a=n.dtickrange,o=void 0,void 0,void 0,o=c||function(t){return t},s=a[0],l=a[1],(!s&&\\\"number\\\"!=typeof s||o(s)<=o(i))&&(!l&&\\\"number\\\"!=typeof l||o(l)>=o(i)))){r=n;break}break;case\\\"log\\\":for(e=0;e<t.tickformatstops.length;e++)if((n=t.tickformatstops[e]).enabled&&f(t.dtick,n.dtickrange)){r=n;break}}return r?r.value:t.tickformat},A.getSubplots=function(t,e){var r=t._fullLayout._subplots,n=r.cartesian.concat(r.gl2d||[]),i=e?A.findSubplotsWithAxis(n,e):n;return i.sort(function(t,e){var r=t.substr(1).split(\\\"y\\\"),n=e.substr(1).split(\\\"y\\\");return r[0]===n[0]?+r[1]-+n[1]:+r[0]-+n[0]}),i},A.findSubplotsWithAxis=function(t,e){for(var r=new RegExp(\\\"x\\\"===e._id.charAt(0)?\\\"^\\\"+e._id+\\\"y\\\":e._id+\\\"$\\\"),n=[],i=0;i<t.length;i++){var a=t[i];r.test(a)&&n.push(a)}return n},A.makeClipPaths=function(t){var e=t._fullLayout;if(!e._hasOnlyLargeSploms){var r,i,a={_offset:0,_length:e.width,_id:\\\"\\\"},o={_offset:0,_length:e.height,_id:\\\"\\\"},s=A.list(t,\\\"x\\\",!0),l=A.list(t,\\\"y\\\",!0),c=[];for(r=0;r<s.length;r++)for(c.push({x:s[r],y:o}),i=0;i<l.length;i++)0===r&&c.push({x:a,y:l[i]}),c.push({x:s[r],y:l[i]});var u=e._clips.selectAll(\\\".axesclip\\\").data(c,function(t){return t.x._id+t.y._id});u.enter().append(\\\"clipPath\\\").classed(\\\"axesclip\\\",!0).attr(\\\"id\\\",function(t){return\\\"clip\\\"+e._uid+t.x._id+t.y._id}).append(\\\"rect\\\"),u.exit().remove(),u.each(function(t){n.select(this).select(\\\"rect\\\").attr({x:t.x._offset||0,y:t.y._offset||0,width:t.x._length||1,height:t.y._length||1})})}},A.draw=function(t,e,r){var n=t._fullLayout;\\\"redraw\\\"===e&&n._paper.selectAll(\\\"g.subplot\\\").each(function(t){var e=t[0],r=n._plots[e],i=r.xaxis,a=r.yaxis;r.xaxislayer.selectAll(\\\".\\\"+i._id+\\\"tick\\\").remove(),r.yaxislayer.selectAll(\\\".\\\"+a._id+\\\"tick\\\").remove(),r.xaxislayer.selectAll(\\\".\\\"+i._id+\\\"tick2\\\").remove(),r.yaxislayer.selectAll(\\\".\\\"+a._id+\\\"tick2\\\").remove(),r.xaxislayer.selectAll(\\\".\\\"+i._id+\\\"divider\\\").remove(),r.yaxislayer.selectAll(\\\".\\\"+a._id+\\\"divider\\\").remove(),r.gridlayer&&r.gridlayer.selectAll(\\\"path\\\").remove(),r.zerolinelayer&&r.zerolinelayer.selectAll(\\\"path\\\").remove(),n._infolayer.select(\\\".g-\\\"+i._id+\\\"title\\\").remove(),n._infolayer.select(\\\".g-\\\"+a._id+\\\"title\\\").remove()});var i=e&&\\\"redraw\\\"!==e?e:A.listIds(t);return s.syncOrAsync(i.map(function(e){return function(){if(e){var n=A.getFromId(t,e),i=A.drawOne(t,n,r);return n._r=n.range.slice(),n._rl=s.simpleMap(n._r,n.r2l),i}}}))},A.drawOne=function(t,e,r){var n,i,l;r=r||{},e.setScale();var h=t._fullLayout,p=e._id,d=p.charAt(0),g=A.counterLetter(p),v=e._mainSubplot,m=e._mainLinePosition,y=e._mainMirrorPosition,x=h._plots[v][d+\\\"axislayer\\\"],b=e._subplotsWith,_=e._vals=A.calcTicks(e),w=[e.mirror,m,y].join(\\\"_\\\");for(n=0;n<_.length;n++)_[n].axInfo=w;if(e.visible){e._selections={},e._tickAngles={};var k,M,S=A.makeTransFn(e);if(\\\"boundaries\\\"===e.tickson){var E=function(t,e){var r,n=[],i=function(t,e){var r=t.xbnd[e];null!==r&&n.push(s.extendFlat({},t,{x:r}))};if(e.length){for(r=0;r<e.length;r++)i(e[r],0);i(e[r-1],1)}return n}(0,_);M=A.clipEnds(e,E),k=\\\"inside\\\"===e.ticks?M:E}else M=A.clipEnds(e,_),k=\\\"inside\\\"===e.ticks?M:_;var C=e._gridVals=M,L=function(t,e){var r,n,i=[],a=function(t,e){var r=t.xbnd[e];null!==r&&i.push(s.extendFlat({},t,{x:r}))};if(t.showdividers&&e.length){for(r=0;r<e.length;r++){var o=e[r];o.text2!==n&&a(o,0),n=o.text2}a(e[r-1],1)}return i}(e,_);if(!h._hasOnlyLargeSploms){var z={};for(n=0;n<b.length;n++){i=b[n];var O=(l=h._plots[i])[g+\\\"axis\\\"],I=O._mainAxis._id;if(!z[I]){z[I]=1;var D=\\\"x\\\"===d?\\\"M0,\\\"+O._offset+\\\"v\\\"+O._length:\\\"M\\\"+O._offset+\\\",0h\\\"+O._length;A.drawGrid(t,e,{vals:C,counterAxis:O,layer:l.gridlayer.select(\\\".\\\"+p),path:D,transFn:S}),A.drawZeroLine(t,e,{counterAxis:O,layer:l.zerolinelayer,path:D,transFn:S})}}}var P=A.getTickSigns(e),R=[];if(e.ticks){var F,B,N,j=A.makeTickPath(e,m,P[2]);if(e._anchorAxis&&e.mirror&&!0!==e.mirror?(F=A.makeTickPath(e,y,P[3]),B=j+F):(F=\\\"\\\",B=j),e.showdividers&&\\\"outside\\\"===e.ticks&&\\\"boundaries\\\"===e.tickson){var U={};for(n=0;n<L.length;n++)U[L[n].x]=1;N=function(t){return U[t.x]?F:B}}else N=B;A.drawTicks(t,e,{vals:k,layer:x,path:N,transFn:S}),R=Object.keys(e._linepositions||{})}for(n=0;n<R.length;n++){i=R[n],l=h._plots[i];var H=e._linepositions[i]||[],q=A.makeTickPath(e,H[0],P[0])+A.makeTickPath(e,H[1],P[1]);A.drawTicks(t,e,{vals:k,layer:l[d+\\\"axislayer\\\"],path:q,transFn:S})}var G=[];if(G.push(function(){return A.drawLabels(t,e,{vals:_,layer:x,transFn:S,labelFns:A.makeLabelFns(e,m)})}),\\\"multicategory\\\"===e.type){var Z=0,$={x:2,y:10}[d],Q=P[2]*(\\\"inside\\\"===e.ticks?-1:1);G.push(function(){return Z+=Y(e,p+\\\"tick\\\")+$,Z+=e._tickAngles[p+\\\"tick\\\"]?e.tickfont.size*T:0,A.drawLabels(t,e,{vals:function(t,e){for(var r=[],n={},i=0;i<e.length;i++){var a=e[i];n[a.text2]?n[a.text2].push(a.x):n[a.text2]=[a.x]}for(var o in n)r.push(V(t,s.interp(n[o],.5),o));return r}(e,_),layer:x,cls:p+\\\"tick2\\\",repositionOnUpdate:!0,secondary:!0,transFn:S,labelFns:A.makeLabelFns(e,m+Z*Q)})}),G.push(function(){return Z+=Y(e,p+\\\"tick2\\\"),e._labelLength=Z,function(t,e,r){var n=e._id+\\\"divider\\\",i=r.vals,a=r.layer.selectAll(\\\"path.\\\"+n).data(i,W);a.exit().remove(),a.enter().insert(\\\"path\\\",\\\":first-child\\\").classed(n,1).classed(\\\"crisp\\\",1).call(u.stroke,e.dividercolor).style(\\\"stroke-width\\\",f.crispRound(t,e.dividerwidth,1)+\\\"px\\\"),a.attr(\\\"transform\\\",r.transFn).attr(\\\"d\\\",r.path)}(t,e,{vals:L,layer:x,path:A.makeTickPath(e,m,Q,Z),transFn:S})})}var tt=o.getComponentMethod(\\\"rangeslider\\\",\\\"isVisible\\\")(e);return G.push(function(){if(e.showticklabels){var r=t.getBoundingClientRect(),n=x.node().getBoundingClientRect();e._boundingBox={width:n.width,height:n.height,left:n.left-r.left,right:n.right-r.left,top:n.top-r.top,bottom:n.bottom-r.top}}else{var i,a=h._size;\\\"x\\\"===d?(i=\\\"free\\\"===e.anchor?a.t+a.h*(1-e.position):a.t+a.h*(1-e._anchorAxis.domain[{bottom:0,top:1}[e.side]]),e._boundingBox={top:i,bottom:i,left:e._offset,right:e._offset+e._length,width:e._length,height:0}):(i=\\\"free\\\"===e.anchor?a.l+a.w*e.position:a.l+a.w*e._anchorAxis.domain[{left:0,right:1}[e.side]],e._boundingBox={left:i,right:i,bottom:e._offset+e._length,top:e._offset,height:e._length,width:0})}if(b){for(var o=e._counterSpan=[1/0,-1/0],s=0;s<b.length;s++){var l=h._plots[b[s]][\\\"x\\\"===d?\\\"yaxis\\\":\\\"xaxis\\\"];et(o,[l._offset,l._offset+l._length])}\\\"free\\\"===e.anchor&&et(o,\\\"x\\\"===d?[e._boundingBox.bottom,e._boundingBox.top]:[e._boundingBox.right,e._boundingBox.left])}},function(){var r,n,i=e.side.charAt(0);if(tt&&(n=o.getComponentMethod(\\\"rangeslider\\\",\\\"autoMarginOpts\\\")(t,e)),a.autoMargin(t,K(e),n),e.automargin&&(!tt||\\\"b\\\"!==i)){r={x:0,y:0,r:0,l:0,t:0,b:0};var s,l,c=e._boundingBox,u=X(t,e);switch(d+i){case\\\"xb\\\":s=0,l=c.top-u,r[i]=c.height;break;case\\\"xt\\\":s=1,l=u-c.bottom,r[i]=c.height;break;case\\\"yl\\\":s=0,l=u-c.right,r[i]=c.width;break;case\\\"yr\\\":s=1,l=c.left-u,r[i]=c.width}if(r[g]=\\\"free\\\"===e.anchor?e.position:e._anchorAxis.domain[s],r[i]>0&&(r[i]+=l),e.title.text!==h._dfltTitle[d]&&(r[i]+=e.title.font.size),\\\"x\\\"===d&&c.width>0){var f=c.right-(e._offset+e._length);f>0&&(r.x=1,r.r=f);var p=e._offset-c.left;p>0&&(r.x=0,r.l=p)}else if(\\\"y\\\"===d&&c.height>0){var v=c.bottom-(e._offset+e._length);v>0&&(r.y=0,r.b=v);var m=e._offset-c.top;m>0&&(r.y=1,r.t=m)}}a.autoMargin(t,J(e),r)}),r.skipTitle||tt&&e._boundingBox&&\\\"bottom\\\"===e.side||G.push(function(){return function(t,e){var r,n=t._fullLayout,i=e._id,a=i.charAt(0),o=e.title.font.size;if(\\\"multicategory\\\"===e.type)r=e._labelLength;else{r=10+1.5*o+(e.linewidth?e.linewidth-1:0)}var s,l,u,h,p=X(t,e);\\\"x\\\"===a?(l=e._offset+e._length/2,u=\\\"top\\\"===e.side?-r-o*(e.showticklabels?1:0):r+o*(e.showticklabels?1.5:.5),u+=p):(u=e._offset+e._length/2,l=\\\"right\\\"===e.side?r+o*(e.showticklabels?1:.5):-r-o*(e.showticklabels?.5:0),l+=p,s={rotate:\\\"-90\\\",offset:0});if(\\\"multicategory\\\"!==e.type){var d=e._selections[e._id+\\\"tick\\\"];if(h={selection:d,side:e.side},d&&d.node()&&d.node().parentNode){var g=f.getTranslate(d.node().parentNode);h.offsetLeft=g.x,h.offsetTop=g.y}}return c.draw(t,i+\\\"title\\\",{propContainer:e,propName:e._name+\\\".title.text\\\",placeholder:n._dfltTitle[a],avoid:h,transform:s,attributes:{x:l,y:u,\\\"text-anchor\\\":\\\"middle\\\"}})}(t,e)}),s.syncOrAsync(G)}function et(t,e){t[0]=Math.min(t[0],e[0]),t[1]=Math.max(t[1],e[1])}},A.getTickSigns=function(t){var e=t._id.charAt(0),r={x:\\\"top\\\",y:\\\"right\\\"}[e],n=t.side===r?1:-1,i=[-1,1,n,-n];return\\\"inside\\\"!==t.ticks==(\\\"x\\\"===e)&&(i=i.map(function(t){return-t})),i},A.makeTransFn=function(t){var e=t._id.charAt(0),r=t._offset;return\\\"x\\\"===e?function(e){return\\\"translate(\\\"+(r+t.l2p(e.x))+\\\",0)\\\"}:function(e){return\\\"translate(0,\\\"+(r+t.l2p(e.x))+\\\")\\\"}},A.makeTickPath=function(t,e,r,n){n=void 0!==n?n:t.ticklen;var i=t._id.charAt(0),a=(t.linewidth||1)/2;return\\\"x\\\"===i?\\\"M0,\\\"+(e+a*r)+\\\"v\\\"+n*r:\\\"M\\\"+(e+a*r)+\\\",0h\\\"+n*r},A.makeLabelFns=function(t,e,r){var n=t._id.charAt(0),a=\\\"boundaries\\\"!==t.tickson&&\\\"outside\\\"===t.ticks,o=0,l=0;if(a&&(o+=t.ticklen),r&&\\\"outside\\\"===t.ticks){var c=s.deg2rad(r);o=t.ticklen*Math.cos(c)+1,l=t.ticklen*Math.sin(c)}t.showticklabels&&(a||t.showline)&&(o+=.2*t.tickfont.size);var u,f,h,p,d={labelStandoff:o+=(t.linewidth||1)/2,labelShift:l};return\\\"x\\\"===n?(p=\\\"bottom\\\"===t.side?1:-1,u=l*p,f=e+o*p,h=\\\"bottom\\\"===t.side?1:-.2,d.xFn=function(t){return t.dx+u},d.yFn=function(t){return t.dy+f+t.fontSize*h},d.anchorFn=function(t,e){return i(e)&&0!==e&&180!==e?e*p<0?\\\"end\\\":\\\"start\\\":\\\"middle\\\"},d.heightFn=function(e,r,n){return r<-60||r>60?-.5*n:\\\"top\\\"===t.side?-n:0}):\\\"y\\\"===n&&(p=\\\"right\\\"===t.side?1:-1,u=o,f=-l*p,h=90===Math.abs(t.tickangle)?.5:0,d.xFn=function(t){return t.dx+e+(u+t.fontSize*h)*p},d.yFn=function(t){return t.dy+f+t.fontSize*k},d.anchorFn=function(e,r){return i(r)&&90===Math.abs(r)?\\\"middle\\\":\\\"right\\\"===t.side?\\\"start\\\":\\\"end\\\"},d.heightFn=function(e,r,n){return(r*=\\\"left\\\"===t.side?1:-1)<-30?-n:r<30?-.5*n:0}),d},A.drawTicks=function(t,e,r){r=r||{};var n=e._id+\\\"tick\\\",i=r.layer.selectAll(\\\"path.\\\"+n).data(e.ticks?r.vals:[],W);i.exit().remove(),i.enter().append(\\\"path\\\").classed(n,1).classed(\\\"ticks\\\",1).classed(\\\"crisp\\\",!1!==r.crisp).call(u.stroke,e.tickcolor).style(\\\"stroke-width\\\",f.crispRound(t,e.tickwidth,1)+\\\"px\\\").attr(\\\"d\\\",r.path),i.attr(\\\"transform\\\",r.transFn)},A.drawGrid=function(t,e,r){r=r||{};var n=e._id+\\\"grid\\\",i=r.vals,a=r.counterAxis;if(!1===e.showgrid)i=[];else if(a&&A.shouldShowZeroLine(t,e,a))for(var o=\\\"array\\\"===e.tickmode,s=0;s<i.length;s++){var l=i[s].x;if(o?!l:Math.abs(l)<e.dtick/100){if(i=i.slice(0,s).concat(i.slice(s+1)),!o)break;s--}}var c=r.layer.selectAll(\\\"path.\\\"+n).data(i,W);c.exit().remove(),c.enter().append(\\\"path\\\").classed(n,1).classed(\\\"crisp\\\",!1!==r.crisp),e._gw=f.crispRound(t,e.gridwidth,1),c.attr(\\\"transform\\\",r.transFn).attr(\\\"d\\\",r.path).call(u.stroke,e.gridcolor||\\\"#ddd\\\").style(\\\"stroke-width\\\",e._gw+\\\"px\\\"),\\\"function\\\"==typeof r.path&&c.attr(\\\"d\\\",r.path)},A.drawZeroLine=function(t,e,r){r=r||r;var n=e._id+\\\"zl\\\",i=A.shouldShowZeroLine(t,e,r.counterAxis),a=r.layer.selectAll(\\\"path.\\\"+n).data(i?[{x:0,id:e._id}]:[]);a.exit().remove(),a.enter().append(\\\"path\\\").classed(n,1).classed(\\\"zl\\\",1).classed(\\\"crisp\\\",!1!==r.crisp).each(function(){r.layer.selectAll(\\\"path\\\").sort(function(t,e){return S.idSort(t.id,e.id)})}),a.attr(\\\"transform\\\",r.transFn).attr(\\\"d\\\",r.path).call(u.stroke,e.zerolinecolor||u.defaultLine).style(\\\"stroke-width\\\",f.crispRound(t,e.zerolinewidth,e._gw||1)+\\\"px\\\")},A.drawLabels=function(t,e,r){r=r||{};var a=e._id,o=a.charAt(0),c=r.cls||a+\\\"tick\\\",u=r.vals,h=r.labelFns,p=r.secondary?0:e.tickangle,d=(e._tickAngles||{})[c],g=r.layer.selectAll(\\\"g.\\\"+c).data(e.showticklabels?u:[],W),v=[];function m(t,e){t.each(function(t){var a=n.select(this),o=a.select(\\\".text-math-group\\\"),s=h.anchorFn(t,e),c=r.transFn.call(a.node(),t)+(i(e)&&0!=+e?\\\" rotate(\\\"+e+\\\",\\\"+h.xFn(t)+\\\",\\\"+(h.yFn(t)-t.fontSize/2)+\\\")\\\":\\\"\\\"),u=l.lineCount(a),p=T*t.fontSize,d=h.heightFn(t,i(e)?+e:0,(u-1)*p);if(d&&(c+=\\\" translate(0, \\\"+d+\\\")\\\"),o.empty())a.select(\\\"text\\\").attr({transform:c,\\\"text-anchor\\\":s});else{var g=f.bBox(o.node()).width*{end:-.5,start:.5}[s];o.attr(\\\"transform\\\",c+(g?\\\"translate(\\\"+g+\\\",0)\\\":\\\"\\\"))}})}g.enter().append(\\\"g\\\").classed(c,1).append(\\\"text\\\").attr(\\\"text-anchor\\\",\\\"middle\\\").each(function(e){var r=n.select(this),i=t._promises.length;r.call(l.positionText,h.xFn(e),h.yFn(e)).call(f.font,e.font,e.fontSize,e.fontColor).text(e.text).call(l.convertToTspans,t),t._promises[i]?v.push(t._promises.pop().then(function(){m(r,p)})):m(r,p)}),g.exit().remove(),r.repositionOnUpdate&&g.each(function(t){n.select(this).select(\\\"text\\\").call(l.positionText,h.xFn(t),h.yFn(t))}),m(g,d||p),e._selections&&(e._selections[c]=g);var y=s.syncOrAsync([function(){return v.length&&Promise.all(v)},function(){m(g,p);var t=null;if(u.length&&\\\"x\\\"===o&&!i(p)&&(\\\"log\\\"!==e.type||\\\"D\\\"!==String(e.dtick).charAt(0))){t=0;var n,a=0,l=[];if(g.each(function(t){a=Math.max(a,t.fontSize);var r=e.l2p(t.x),n=$(this),i=f.bBox(n.node());l.push({top:0,bottom:10,height:10,left:r-i.width/2,right:r+i.width/2+2,width:i.width+2})}),\\\"boundaries\\\"!==e.tickson&&!e.showdividers||r.secondary){var h=u.length,d=Math.abs((u[h-1].x-u[0].x)*e._m)/(h-1)<2.5*a||\\\"multicategory\\\"===e.type;for(n=0;n<l.length-1;n++)if(s.bBoxIntersect(l[n],l[n+1])){t=d?90:30;break}}else{var v=2;for(e.ticks&&(v+=e.tickwidth/2),n=0;n<l.length;n++){var y=u[n].xbnd,x=l[n];if(null!==y[0]&&x.left-e.l2p(y[0])<v||null!==y[1]&&e.l2p(y[1])-x.right<v){t=90;break}}}t&&m(g,t)}e._tickAngles&&(e._tickAngles[c]=null===t?i(p)?p:0:t)}]);return y&&y.then&&t._promises.push(y),y},A.shouldShowZeroLine=function(t,e,r){var n=s.simpleMap(e.range,e.r2l);return n[0]*n[1]<=0&&e.zeroline&&(\\\"linear\\\"===e.type||\\\"-\\\"===e.type)&&e._gridVals.length&&(Z(e,0)||!function(t,e,r,n){var i=r._mainAxis;if(!i)return;var a=t._fullLayout,o=e._id.charAt(0),s=A.counterLetter(e._id),l=e._offset+(Math.abs(n[0])<Math.abs(n[1])==(\\\"x\\\"===o)?0:e._length);function c(t){if(!t.showline||!t.linewidth)return!1;var r=Math.max((t.linewidth+e.zerolinewidth)/2,1);function n(t){return\\\"number\\\"==typeof t&&Math.abs(t-l)<r}if(n(t._mainLinePosition)||n(t._mainMirrorPosition))return!0;var i=t._linepositions||{};for(var a in i)if(n(i[a][0])||n(i[a][1]))return!0}var u=a._plots[r._mainSubplot];if(!(u.mainplotinfo||u).overlays.length)return c(r);for(var f=A.list(t,s),h=0;h<f.length;h++){var p=f[h];if(p._mainAxis===i&&c(p))return!0}}(t,e,r,n)||function(t,e){for(var r=t._fullData,n=e._mainSubplot,i=e._id.charAt(0),a=0;a<r.length;a++){var s=r[a];if(!0===s.visible&&s.xaxis+s.yaxis===n){if(o.traceIs(s,\\\"bar-like\\\")&&s.orientation==={x:\\\"h\\\",y:\\\"v\\\"}[i])return!0;if(s.fill&&s.fill.charAt(s.fill.length-1)===i)return!0}}return!1}(t,e))},A.clipEnds=function(t,e){return e.filter(function(e){return Z(t,e.x)})},A.allowAutoMargin=function(t){for(var e=A.list(t,\\\"\\\",!0),r=0;r<e.length;r++){var n=e[r];n.automargin&&a.allowAutoMargin(t,J(n)),o.getComponentMethod(\\\"rangeslider\\\",\\\"isVisible\\\")(n)&&a.allowAutoMargin(t,K(n))}},A.swap=function(t,e){for(var r=function(t,e){var r,n,i=[];for(r=0;r<e.length;r++){var a=[],o=t._fullData[e[r]].xaxis,s=t._fullData[e[r]].yaxis;if(o&&s){for(n=0;n<i.length;n++)-1===i[n].x.indexOf(o)&&-1===i[n].y.indexOf(s)||a.push(n);if(a.length){var l,c=i[a[0]];if(a.length>1)for(n=1;n<a.length;n++)l=i[a[n]],Q(c.x,l.x),Q(c.y,l.y);Q(c.x,[o]),Q(c.y,[s])}else i.push({x:[o],y:[s]})}}return i}(t,e),n=0;n<r.length;n++)tt(t,r[n].x,r[n].y)}},{\\\"../../components/color\\\":580,\\\"../../components/drawing\\\":601,\\\"../../components/titles\\\":668,\\\"../../constants/alignment\\\":675,\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"../../lib/svg_text_utils\\\":727,\\\"../../plots/plots\\\":812,\\\"../../registry\\\":831,\\\"./autorange\\\":750,\\\"./axis_autotype\\\":752,\\\"./axis_ids\\\":754,\\\"./clean_ticks\\\":756,\\\"./layout_attributes\\\":763,\\\"./set_convert\\\":769,d3:157,\\\"fast-isnumeric\\\":224}],752:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../constants/numerical\\\").BADNUM;e.exports=function(t,e,r){return!(r=r||{}).noMultiCategory&&(o=t,i.isArrayOrTypedArray(o[0])&&i.isArrayOrTypedArray(o[1]))?\\\"multicategory\\\":function(t,e){for(var r=Math.max(1,(t.length-1)/1e3),a=0,o=0,s={},l=0;l<t.length;l+=r){var c=t[Math.round(l)],u=String(c);s[u]||(s[u]=1,i.isDateTime(c,e)&&(a+=1),n(c)&&(o+=1))}return a>2*o}(t,e)?\\\"date\\\":function(t){for(var e=Math.max(1,(t.length-1)/1e3),r=0,n=0,o={},s=0;s<t.length;s+=e){var l=t[Math.round(s)],c=String(l);o[c]||(o[c]=1,\\\"boolean\\\"==typeof l?n++:i.cleanNumber(l)!==a?r++:\\\"string\\\"==typeof l&&n++)}return n>2*r}(t)?\\\"category\\\":function(t){if(!t)return!1;for(var e=0;e<t.length;e++)if(n(t[e]))return!0;return!1}(t)?\\\"linear\\\":\\\"-\\\";var o}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"fast-isnumeric\\\":224}],753:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"./layout_attributes\\\"),o=t(\\\"./tick_value_defaults\\\"),s=t(\\\"./tick_mark_defaults\\\"),l=t(\\\"./tick_label_defaults\\\"),c=t(\\\"./category_order_defaults\\\"),u=t(\\\"./line_grid_defaults\\\"),f=t(\\\"./set_convert\\\");e.exports=function(t,e,r,h,p){var d=h.letter,g=h.font||{},v=h.splomStash||{},m=r(\\\"visible\\\",!h.visibleDflt),y=e.type;\\\"date\\\"===y&&n.getComponentMethod(\\\"calendars\\\",\\\"handleDefaults\\\")(t,e,\\\"calendar\\\",h.calendar);f(e,p);var x=!e.isValidRange(t.range);x&&h.reverseDflt&&(x=\\\"reversed\\\"),!r(\\\"autorange\\\",x)||\\\"linear\\\"!==y&&\\\"-\\\"!==y||r(\\\"rangemode\\\"),r(\\\"range\\\"),e.cleanRange(),c(t,e,r,h),\\\"category\\\"===y||h.noHover||r(\\\"hoverformat\\\");var b=r(\\\"color\\\"),_=b!==a.color.dflt?b:g.color,w=v.label||p._dfltTitle[d];if(l(t,e,r,y,h,{pass:1}),!m)return e;r(\\\"title.text\\\",w),i.coerceFont(r,\\\"title.font\\\",{family:g.family,size:Math.round(1.2*g.size),color:_}),o(t,e,r,y),l(t,e,r,y,h,{pass:2}),s(t,e,r,h),u(t,e,r,{dfltColor:b,bgColor:h.bgColor,showGrid:h.showGrid,attributes:a}),(e.showline||e.ticks)&&r(\\\"mirror\\\"),h.automargin&&r(\\\"automargin\\\");var k,T=\\\"multicategory\\\"===e.type;h.noTickson||\\\"category\\\"!==e.type&&!T||!e.ticks&&!e.showgrid||(T&&(k=\\\"boundaries\\\"),r(\\\"tickson\\\",k));T&&(r(\\\"showdividers\\\")&&(r(\\\"dividercolor\\\"),r(\\\"dividerwidth\\\")));return e}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"./category_order_defaults\\\":755,\\\"./layout_attributes\\\":763,\\\"./line_grid_defaults\\\":765,\\\"./set_convert\\\":769,\\\"./tick_label_defaults\\\":770,\\\"./tick_mark_defaults\\\":771,\\\"./tick_value_defaults\\\":772}],754:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"./constants\\\");r.id2name=function(t){if(\\\"string\\\"==typeof t&&t.match(i.AX_ID_PATTERN)){var e=t.substr(1);return\\\"1\\\"===e&&(e=\\\"\\\"),t.charAt(0)+\\\"axis\\\"+e}},r.name2id=function(t){if(t.match(i.AX_NAME_PATTERN)){var e=t.substr(5);return\\\"1\\\"===e&&(e=\\\"\\\"),t.charAt(0)+e}},r.cleanId=function(t,e){if(t.match(i.AX_ID_PATTERN)&&(!e||t.charAt(0)===e)){var r=t.substr(1).replace(/^0+/,\\\"\\\");return\\\"1\\\"===r&&(r=\\\"\\\"),t.charAt(0)+r}},r.list=function(t,e,n){var i=t._fullLayout;if(!i)return[];var a,o=r.listIds(t,e),s=new Array(o.length);for(a=0;a<o.length;a++){var l=o[a];s[a]=i[l.charAt(0)+\\\"axis\\\"+l.substr(1)]}if(!n){var c=i._subplots.gl3d||[];for(a=0;a<c.length;a++){var u=i[c[a]];e?s.push(u[e+\\\"axis\\\"]):s.push(u.xaxis,u.yaxis,u.zaxis)}}return s},r.listIds=function(t,e){var r=t._fullLayout;if(!r)return[];var n=r._subplots;return e?n[e+\\\"axis\\\"]:n.xaxis.concat(n.yaxis)},r.getFromId=function(t,e,n){var i=t._fullLayout;return\\\"x\\\"===n?e=e.replace(/y[0-9]*/,\\\"\\\"):\\\"y\\\"===n&&(e=e.replace(/x[0-9]*/,\\\"\\\")),i[r.id2name(e)]},r.getFromTrace=function(t,e,i){var a=t._fullLayout,o=null;if(n.traceIs(e,\\\"gl3d\\\")){var s=e.scene;\\\"scene\\\"===s.substr(0,5)&&(o=a[s][i+\\\"axis\\\"])}else o=r.getFromId(t,e[i+\\\"axis\\\"]||i);return o},r.idSort=function(t,e){var r=t.charAt(0),n=e.charAt(0);return r!==n?r>n?1:-1:+(t.substr(1)||1)-+(e.substr(1)||1)},r.getAxisGroup=function(t,e){for(var r=t._axisMatchGroups,n=0;n<r.length;n++){if(r[n][e])return\\\"g\\\"+n}return e}},{\\\"../../registry\\\":831,\\\"./constants\\\":757}],755:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,n){if(\\\"category\\\"===e.type){var i,a=t.categoryarray,o=Array.isArray(a)&&a.length>0;o&&(i=\\\"array\\\");var s,l=r(\\\"categoryorder\\\",i);\\\"array\\\"===l&&(s=r(\\\"categoryarray\\\")),o||\\\"array\\\"!==l||(l=e.categoryorder=\\\"trace\\\"),\\\"trace\\\"===l?e._initialCategories=[]:\\\"array\\\"===l?e._initialCategories=s.slice():(s=function(t,e){var r,n,i,a=e.dataAttr||t._id.charAt(0),o={};if(e.axData)r=e.axData;else for(r=[],n=0;n<e.data.length;n++){var s=e.data[n];s[a+\\\"axis\\\"]===t._id&&r.push(s)}for(n=0;n<r.length;n++){var l=r[n][a];for(i=0;i<l.length;i++){var c=l[i];null!=c&&(o[c]=1)}}return Object.keys(o)}(e,n).sort(),\\\"category ascending\\\"===l?e._initialCategories=s:\\\"category descending\\\"===l&&(e._initialCategories=s.reverse()))}}},{}],756:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../constants/numerical\\\").ONEDAY;r.dtick=function(t,e){var r=\\\"log\\\"===e,i=\\\"date\\\"===e,o=\\\"category\\\"===e,s=i?a:1;if(!t)return s;if(n(t))return(t=Number(t))<=0?s:o?Math.max(1,Math.round(t)):i?Math.max(.1,t):t;if(\\\"string\\\"!=typeof t||!i&&!r)return s;var l=t.charAt(0),c=t.substr(1);return(c=n(c)?Number(c):0)<=0||!(i&&\\\"M\\\"===l&&c===Math.round(c)||r&&\\\"L\\\"===l||r&&\\\"D\\\"===l&&(1===c||2===c))?s:t},r.tick0=function(t,e,r,a){return\\\"date\\\"===e?i.cleanDate(t,i.dateTick0(r)):\\\"D1\\\"!==a&&\\\"D2\\\"!==a?n(t)?Number(t):0:void 0}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"fast-isnumeric\\\":224}],757:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib/regex\\\").counter;e.exports={idRegex:{x:n(\\\"x\\\"),y:n(\\\"y\\\")},attrRegex:n(\\\"[xy]axis\\\"),xAxisMatch:n(\\\"xaxis\\\"),yAxisMatch:n(\\\"yaxis\\\"),AX_ID_PATTERN:/^[xyz][0-9]*$/,AX_NAME_PATTERN:/^[xyz]axis[0-9]*$/,SUBPLOT_PATTERN:/^x([0-9]*)y([0-9]*)$/,MINDRAG:8,MINSELECT:12,MINZOOM:20,DRAGGERSIZE:20,BENDPX:1.5,REDRAWDELAY:50,SELECTDELAY:100,SELECTID:\\\"-select\\\",DFLTRANGEX:[-1,6],DFLTRANGEY:[-1,4],traceLayerClasses:[\\\"heatmaplayer\\\",\\\"contourcarpetlayer\\\",\\\"contourlayer\\\",\\\"funnellayer\\\",\\\"waterfalllayer\\\",\\\"barlayer\\\",\\\"carpetlayer\\\",\\\"violinlayer\\\",\\\"boxlayer\\\",\\\"ohlclayer\\\",\\\"scattercarpetlayer\\\",\\\"scatterlayer\\\"],clipOnAxisFalseQuery:[\\\".scatterlayer\\\",\\\".barlayer\\\",\\\".funnellayer\\\",\\\".waterfalllayer\\\"],layerValue2layerClass:{\\\"above traces\\\":\\\"above\\\",\\\"below traces\\\":\\\"below\\\"}}},{\\\"../../lib/regex\\\":719}],758:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./axis_ids\\\").id2name,a=t(\\\"./scale_zoom\\\"),o=t(\\\"./autorange\\\").makePadFn,s=t(\\\"./autorange\\\").concatExtremes,l=t(\\\"../../constants/numerical\\\").ALMOST_EQUAL,c=t(\\\"../../constants/alignment\\\").FROM_BL;function u(t,e,r,n,a){var o,s,l,c,u=\\\"range\\\"!==a,f=n[i(e)].type,h=[];for(s=0;s<r.length;s++)if((l=r[s])!==e&&(c=n[i(l)]).type===f)if(c.fixedrange){if(u&&c.anchor){n[i(c.anchor)].fixedrange&&h.push(l)}}else h.push(l);for(o=0;o<t.length;o++)if(t[o][e]){var p=t[o],d=[];for(s=0;s<h.length;s++)p[l=h[s]]||d.push(l);return{linkableAxes:d,thisGroup:p}}return{linkableAxes:h,thisGroup:null}}function f(t,e,r,n,i){var a,o,s,l,c;null===e?((e={})[r]=1,c=t.length,t.push(e)):c=t.indexOf(e);var u=Object.keys(e);for(a=0;a<t.length;a++)if(s=t[a],a!==c&&s[n]){var f=s[n];for(o=0;o<u.length;o++)s[l=u[o]]=f*i*e[l];return void t.splice(c,1)}if(1!==i)for(o=0;o<u.length;o++)e[u[o]]*=i;e[n]=1}function h(t,e){var r=t._inputDomain,n=c[t.constraintoward],i=r[0]+(r[1]-r[0])*n;t.domain=t._input.domain=[i+(r[0]-i)/e,i+(r[1]-i)/e],t.setScale()}r.handleConstraintDefaults=function(t,e,r,i,a){var o,s,l,c,h=a._axisConstraintGroups,p=a._axisMatchGroups,d=e._id,g=d.charAt(0),v=((a._splomAxes||{})[g]||{})[d]||{},m=e._id,y=m.charAt(0),x=r(\\\"constrain\\\");if(n.coerce(t,e,{constraintoward:{valType:\\\"enumerated\\\",values:\\\"x\\\"===y?[\\\"left\\\",\\\"center\\\",\\\"right\\\"]:[\\\"bottom\\\",\\\"middle\\\",\\\"top\\\"],dflt:\\\"x\\\"===y?\\\"center\\\":\\\"middle\\\"}},\\\"constraintoward\\\"),!t.matches&&!v.matches||e.fixedrange||(s=u(p,m,i,a),o=n.coerce(t,e,{matches:{valType:\\\"enumerated\\\",values:s.linkableAxes||[],dflt:v.matches}},\\\"matches\\\")),o||!t.scaleanchor||e.fixedrange&&\\\"domain\\\"!==x||(c=u(h,m,i,a,x),l=n.coerce(t,e,{scaleanchor:{valType:\\\"enumerated\\\",values:c.linkableAxes||[]}},\\\"scaleanchor\\\")),o?(delete e.constrain,f(p,s.thisGroup,m,o,1)):-1!==i.indexOf(t.matches)&&n.warn(\\\"ignored \\\"+e._name+'.matches: \\\"'+t.matches+'\\\" to avoid either an infinite loop or because the target axis has fixed range.'),l){var b=r(\\\"scaleratio\\\");b||(b=e.scaleratio=1),f(h,c.thisGroup,m,l,b)}else-1!==i.indexOf(t.scaleanchor)&&n.warn(\\\"ignored \\\"+e._name+'.scaleanchor: \\\"'+t.scaleanchor+'\\\" to avoid either an infinite loop and possibly inconsistent scaleratios, or because the target axis has fixed range or this axis declares a *matches* constraint.')},r.enforce=function(t){var e,r,n,c,u,f,p,d=t._fullLayout,g=d._axisConstraintGroups||[];for(e=0;e<g.length;e++){var v=g[e],m=Object.keys(v),y=1/0,x=0,b=1/0,_={},w={},k=!1;for(r=0;r<m.length;r++)w[n=m[r]]=c=d[i(n)],c._inputDomain?c.domain=c._inputDomain.slice():c._inputDomain=c.domain.slice(),c._inputRange||(c._inputRange=c.range.slice()),c.setScale(),_[n]=u=Math.abs(c._m)/v[n],y=Math.min(y,u),\\\"domain\\\"!==c.constrain&&c._constraintShrinkable||(b=Math.min(b,u)),delete c._constraintShrinkable,x=Math.max(x,u),\\\"domain\\\"===c.constrain&&(k=!0);if(!(y>l*x)||k)for(r=0;r<m.length;r++)if(u=_[n=m[r]],f=(c=w[n]).constrain,u!==b||\\\"domain\\\"===f)if(p=u/b,\\\"range\\\"===f)a(c,p);else{var T=c._inputDomain,A=(c.domain[1]-c.domain[0])/(T[1]-T[0]),M=(c.r2l(c.range[1])-c.r2l(c.range[0]))/(c.r2l(c._inputRange[1])-c.r2l(c._inputRange[0]));if((p/=A)*M<1){c.domain=c._input.domain=T.slice(),a(c,p);continue}if(M<1&&(c.range=c._input.range=c._inputRange.slice(),p*=M),c.autorange){var S=c.r2l(c.range[0]),E=c.r2l(c.range[1]),C=(S+E)/2,L=C,z=C,O=Math.abs(E-C),I=C-O*p*1.0001,D=C+O*p*1.0001,P=o(c);h(c,p);var R,F,B=Math.abs(c._m),N=s(t,c),j=N.min,V=N.max;for(F=0;F<j.length;F++)(R=j[F].val-P(j[F])/B)>I&&R<L&&(L=R);for(F=0;F<V.length;F++)(R=V[F].val+P(V[F])/B)<D&&R>z&&(z=R);p/=(z-L)/(2*O),L=c.l2r(L),z=c.l2r(z),c.range=c._input.range=S<E?[L,z]:[z,L]}h(c,p)}}},r.clean=function(t,e){if(e._inputDomain){for(var r=!1,n=e._id,i=t._fullLayout._axisConstraintGroups,a=0;a<i.length;a++)if(i[a][n]){r=!0;break}r&&\\\"domain\\\"===e.constrain||(e._input.domain=e.domain=e._inputDomain,delete e._inputDomain)}}},{\\\"../../constants/alignment\\\":675,\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"./autorange\\\":750,\\\"./axis_ids\\\":754,\\\"./scale_zoom\\\":767}],759:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"tinycolor2\\\"),a=t(\\\"has-passive-events\\\"),o=t(\\\"../../registry\\\"),s=t(\\\"../../lib\\\"),l=t(\\\"../../lib/svg_text_utils\\\"),c=t(\\\"../../components/color\\\"),u=t(\\\"../../components/drawing\\\"),f=t(\\\"../../components/fx\\\"),h=t(\\\"./axes\\\"),p=t(\\\"../../lib/setcursor\\\"),d=t(\\\"../../components/dragelement\\\"),g=t(\\\"../../constants/alignment\\\").FROM_TL,v=t(\\\"../../lib/clear_gl_canvases\\\"),m=t(\\\"../../plot_api/subroutines\\\").redrawReglTraces,y=t(\\\"../plots\\\"),x=t(\\\"./axis_ids\\\").getFromId,b=t(\\\"./select\\\").prepSelect,_=t(\\\"./select\\\").clearSelect,w=t(\\\"./select\\\").selectOnClick,k=t(\\\"./scale_zoom\\\"),T=t(\\\"./constants\\\"),A=T.MINDRAG,M=T.MINZOOM,S=!0;function E(t,e,r,n){var i=s.ensureSingle(t.draglayer,e,r,function(e){e.classed(\\\"drag\\\",!0).style({fill:\\\"transparent\\\",\\\"stroke-width\\\":0}).attr(\\\"data-subplot\\\",t.id)});return i.call(p,n),i.node()}function C(t,e,r,i,a,o,s){var l=E(t,\\\"rect\\\",e,r);return n.select(l).call(u.setRect,i,a,o,s),l}function L(t,e){for(var r=0;r<t.length;r++)if(!t[r].fixedrange)return e;return\\\"\\\"}function z(t,e,r,n,i){for(var a=0;a<t.length;a++){var o=t[a];if(!o.fixedrange){var s=o._rl[0],l=o._rl[1]-s;n[o._name+\\\".range[0]\\\"]=o.l2r(s+l*e),n[o._name+\\\".range[1]\\\"]=o.l2r(s+l*r)}}if(i&&i.length){var c=(e+(1-r))/2;z(i,c,1-c,n,[])}}function O(t,e){for(var r=0;r<t.length;r++){var n=t[r];n.fixedrange||(n.range=[n.l2r(n._rl[0]-e/n._m),n.l2r(n._rl[1]-e/n._m)])}}function I(t){return 1-(t>=0?Math.min(t,.9):1/(1/Math.max(t,-.3)+3.222))}function D(t,e,r,n,i){return t.append(\\\"path\\\").attr(\\\"class\\\",\\\"zoombox\\\").style({fill:e>.2?\\\"rgba(0,0,0,0)\\\":\\\"rgba(255,255,255,0)\\\",\\\"stroke-width\\\":0}).attr(\\\"transform\\\",\\\"translate(\\\"+r+\\\", \\\"+n+\\\")\\\").attr(\\\"d\\\",i+\\\"Z\\\")}function P(t,e,r){return t.append(\\\"path\\\").attr(\\\"class\\\",\\\"zoombox-corners\\\").style({fill:c.background,stroke:c.defaultLine,\\\"stroke-width\\\":1,opacity:0}).attr(\\\"transform\\\",\\\"translate(\\\"+e+\\\", \\\"+r+\\\")\\\").attr(\\\"d\\\",\\\"M0,0Z\\\")}function R(t,e,r,n,i,a){t.attr(\\\"d\\\",n+\\\"M\\\"+r.l+\\\",\\\"+r.t+\\\"v\\\"+r.h+\\\"h\\\"+r.w+\\\"v-\\\"+r.h+\\\"h-\\\"+r.w+\\\"Z\\\"),F(t,e,i,a)}function F(t,e,r,n){r||(t.transition().style(\\\"fill\\\",n>.2?\\\"rgba(0,0,0,0.4)\\\":\\\"rgba(255,255,255,0.3)\\\").duration(200),e.transition().style(\\\"opacity\\\",1).duration(200))}function B(t){n.select(t).selectAll(\\\".zoombox,.js-zoombox-backdrop,.js-zoombox-menu,.zoombox-corners\\\").remove()}function N(t){S&&t.data&&t._context.showTips&&(s.notifier(s._(t,\\\"Double-click to zoom back out\\\"),\\\"long\\\"),S=!1)}function j(t){return\\\"lasso\\\"===t||\\\"select\\\"===t}function V(t){var e=Math.floor(Math.min(t.b-t.t,t.r-t.l,M)/2);return\\\"M\\\"+(t.l-3.5)+\\\",\\\"+(t.t-.5+e)+\\\"h3v\\\"+-e+\\\"h\\\"+e+\\\"v-3h-\\\"+(e+3)+\\\"ZM\\\"+(t.r+3.5)+\\\",\\\"+(t.t-.5+e)+\\\"h-3v\\\"+-e+\\\"h\\\"+-e+\\\"v-3h\\\"+(e+3)+\\\"ZM\\\"+(t.r+3.5)+\\\",\\\"+(t.b+.5-e)+\\\"h-3v\\\"+e+\\\"h\\\"+-e+\\\"v3h\\\"+(e+3)+\\\"ZM\\\"+(t.l-3.5)+\\\",\\\"+(t.b+.5-e)+\\\"h3v\\\"+e+\\\"h\\\"+e+\\\"v3h-\\\"+(e+3)+\\\"Z\\\"}function U(t,e,r,n){for(var i,a,o,l,c=!1,u={},f={},h=0;h<e.length;h++){var p=e[h];for(i in r)if(p[i]){for(o in p)(\\\"x\\\"===o.charAt(0)?r:n)[o]||(u[o]=i);for(a in n)p[a]&&(c=!0)}for(a in n)if(p[a])for(l in p)(\\\"x\\\"===l.charAt(0)?r:n)[l]||(f[l]=a)}c&&(s.extendFlat(u,f),f={});var d={},g=[];for(o in u){var v=x(t,o);g.push(v),d[v._id]=v}var m={},y=[];for(l in f){var b=x(t,l);y.push(b),m[b._id]=b}return{xaHash:d,yaHash:m,xaxes:g,yaxes:y,xLinks:u,yLinks:f,isSubplotConstrained:c}}function H(t,e){if(a){var r=void 0!==t.onwheel?\\\"wheel\\\":\\\"mousewheel\\\";t._onwheel&&t.removeEventListener(r,t._onwheel),t._onwheel=e,t.addEventListener(r,e,{passive:!1})}else void 0!==t.onwheel?t.onwheel=e:void 0!==t.onmousewheel&&(t.onmousewheel=e)}function q(t){var e=[];for(var r in t)e.push(t[r]);return e}e.exports={makeDragBox:function(t,e,r,a,c,p,S,E){var F,G,Y,W,X,Z,$,J,K,Q,tt,et,rt,nt,it,at,ot,st,lt,ct,ut,ft=t._fullLayout._zoomlayer,ht=S+E===\\\"nsew\\\",pt=1===(S+E).length;function dt(){if(F=e.xaxis,G=e.yaxis,K=F._length,Q=G._length,$=F._offset,J=G._offset,(Y={})[F._id]=F,(W={})[G._id]=G,S&&E)for(var r=e.overlays,n=0;n<r.length;n++){var i=r[n].xaxis;Y[i._id]=i;var a=r[n].yaxis;W[a._id]=a}X=q(Y),Z=q(W),rt=L(X,E),nt=L(Z,S),it=!nt&&!rt,tt=U(t,t._fullLayout._axisConstraintGroups,Y,W),et=U(t,t._fullLayout._axisMatchGroups,Y,W),at=E||tt.isSubplotConstrained||et.isSubplotConstrained,ot=S||tt.isSubplotConstrained||et.isSubplotConstrained;var o=t._fullLayout;st=o._has(\\\"scattergl\\\"),lt=o._has(\\\"splom\\\"),ct=o._has(\\\"svg\\\")}dt();var gt=function(t,e,r){return t?\\\"nsew\\\"===t?r?\\\"\\\":\\\"pan\\\"===e?\\\"move\\\":\\\"crosshair\\\":t.toLowerCase()+\\\"-resize\\\":\\\"pointer\\\"}(nt+rt,t._fullLayout.dragmode,ht),vt=C(e,S+E+\\\"drag\\\",gt,r,a,c,p);if(it&&!ht)return vt.onmousedown=null,vt.style.pointerEvents=\\\"none\\\",vt;var mt,yt,xt,bt,_t,wt,kt,Tt,At,Mt,St={element:vt,gd:t,plotinfo:e};function Et(){St.plotinfo.selection=!1,_(t)}function Ct(r,i){var a=t._fullLayout.clickmode;if(B(t),2!==r||pt||function(){if(!t._transitioningWithDuration){var e=t._context.doubleClick,r=[];rt&&(r=r.concat(X)),nt&&(r=r.concat(Z)),et.xaxes&&(r=r.concat(et.xaxes)),et.yaxes&&(r=r.concat(et.yaxes));var n,i,a,s={};if(\\\"reset+autosize\\\"===e)for(e=\\\"autosize\\\",i=0;i<r.length;i++)if((n=r[i])._rangeInitial&&(n.range[0]!==n._rangeInitial[0]||n.range[1]!==n._rangeInitial[1])||!n._rangeInitial&&!n.autorange){e=\\\"reset\\\";break}if(\\\"autosize\\\"===e)for(i=0;i<r.length;i++)(n=r[i]).fixedrange||(s[n._name+\\\".autorange\\\"]=!0);else if(\\\"reset\\\"===e)for((rt||tt.isSubplotConstrained)&&(r=r.concat(tt.xaxes)),nt&&!tt.isSubplotConstrained&&(r=r.concat(tt.yaxes)),tt.isSubplotConstrained&&(rt?nt||(r=r.concat(Z)):r=r.concat(X)),i=0;i<r.length;i++)(n=r[i]).fixedrange||(n._rangeInitial?(a=n._rangeInitial,s[n._name+\\\".range[0]\\\"]=a[0],s[n._name+\\\".range[1]\\\"]=a[1]):s[n._name+\\\".autorange\\\"]=!0);t.emit(\\\"plotly_doubleclick\\\",null),o.call(\\\"_guiRelayout\\\",t,s)}}(),ht)a.indexOf(\\\"select\\\")>-1&&w(i,t,X,Z,e.id,St),a.indexOf(\\\"event\\\")>-1&&f.click(t,i,e.id);else if(1===r&&pt){var s=S?G:F,c=\\\"s\\\"===S||\\\"w\\\"===E?0:1,u=s._name+\\\".range[\\\"+c+\\\"]\\\",h=function(t,e){var r,i=t.range[e],a=Math.abs(i-t.range[1-e]);return\\\"date\\\"===t.type?i:\\\"log\\\"===t.type?(r=Math.ceil(Math.max(0,-Math.log(a)/Math.LN10))+3,n.format(\\\".\\\"+r+\\\"g\\\")(Math.pow(10,i))):(r=Math.floor(Math.log(Math.abs(i))/Math.LN10)-Math.floor(Math.log(a)/Math.LN10)+4,n.format(\\\".\\\"+String(r)+\\\"g\\\")(i))}(s,c),p=\\\"left\\\",d=\\\"middle\\\";if(s.fixedrange)return;S?(d=\\\"n\\\"===S?\\\"top\\\":\\\"bottom\\\",\\\"right\\\"===s.side&&(p=\\\"right\\\")):\\\"e\\\"===E&&(p=\\\"right\\\"),t._context.showAxisRangeEntryBoxes&&n.select(vt).call(l.makeEditable,{gd:t,immediate:!0,background:t._fullLayout.paper_bgcolor,text:String(h),fill:s.tickfont?s.tickfont.color:\\\"#444\\\",horizontalAlign:p,verticalAlign:d}).on(\\\"edit\\\",function(e){var r=s.d2r(e);void 0!==r&&o.call(\\\"_guiRelayout\\\",t,u,r)})}}function Lt(e,r){if(t._transitioningWithDuration)return!1;var n=Math.max(0,Math.min(K,e+mt)),i=Math.max(0,Math.min(Q,r+yt)),a=Math.abs(n-mt),o=Math.abs(i-yt);function s(){kt=\\\"\\\",xt.r=xt.l,xt.t=xt.b,At.attr(\\\"d\\\",\\\"M0,0Z\\\")}if(xt.l=Math.min(mt,n),xt.r=Math.max(mt,n),xt.t=Math.min(yt,i),xt.b=Math.max(yt,i),tt.isSubplotConstrained)a>M||o>M?(kt=\\\"xy\\\",a/K>o/Q?(o=a*Q/K,yt>i?xt.t=yt-o:xt.b=yt+o):(a=o*K/Q,mt>n?xt.l=mt-a:xt.r=mt+a),At.attr(\\\"d\\\",V(xt))):s();else if(et.isSubplotConstrained)if(a>M||o>M){kt=\\\"xy\\\";var l=Math.min(xt.l/K,(Q-xt.b)/Q),c=Math.max(xt.r/K,(Q-xt.t)/Q);xt.l=l*K,xt.r=c*K,xt.b=(1-l)*Q,xt.t=(1-c)*Q,At.attr(\\\"d\\\",V(xt))}else s();else!nt||o<Math.min(Math.max(.6*a,A),M)?a<A||!rt?s():(xt.t=0,xt.b=Q,kt=\\\"x\\\",At.attr(\\\"d\\\",function(t,e){return\\\"M\\\"+(t.l-.5)+\\\",\\\"+(e-M-.5)+\\\"h-3v\\\"+(2*M+1)+\\\"h3ZM\\\"+(t.r+.5)+\\\",\\\"+(e-M-.5)+\\\"h3v\\\"+(2*M+1)+\\\"h-3Z\\\"}(xt,yt))):!rt||a<Math.min(.6*o,M)?(xt.l=0,xt.r=K,kt=\\\"y\\\",At.attr(\\\"d\\\",function(t,e){return\\\"M\\\"+(e-M-.5)+\\\",\\\"+(t.t-.5)+\\\"v-3h\\\"+(2*M+1)+\\\"v3ZM\\\"+(e-M-.5)+\\\",\\\"+(t.b+.5)+\\\"v3h\\\"+(2*M+1)+\\\"v-3Z\\\"}(xt,mt))):(kt=\\\"xy\\\",At.attr(\\\"d\\\",V(xt)));xt.w=xt.r-xt.l,xt.h=xt.b-xt.t,kt&&(Mt=!0),t._dragged=Mt,R(Tt,At,xt,_t,wt,bt),zt(),t.emit(\\\"plotly_relayouting\\\",ut),wt=!0}function zt(){ut={},\\\"xy\\\"!==kt&&\\\"x\\\"!==kt||(z(X,xt.l/K,xt.r/K,ut,tt.xaxes),Bt(\\\"x\\\",ut)),\\\"xy\\\"!==kt&&\\\"y\\\"!==kt||(z(Z,(Q-xt.b)/Q,(Q-xt.t)/Q,ut,tt.yaxes),Bt(\\\"y\\\",ut))}function Ot(){if(Math.min(xt.h,xt.w)<2*A)return B(t);zt(),B(t),jt(),N(t)}St.prepFn=function(e,r,n){var a=St.dragmode,o=t._fullLayout.dragmode;o!==a&&(St.dragmode=o),dt(),it||(ht?e.shiftKey?\\\"pan\\\"===o?o=\\\"zoom\\\":j(o)||(o=\\\"pan\\\"):e.ctrlKey&&(o=\\\"pan\\\"):o=\\\"pan\\\"),St.minDrag=\\\"lasso\\\"===o?1:void 0,j(o)?(St.xaxes=X,St.yaxes=Z,b(e,r,n,St,o)):(St.clickFn=Ct,j(a)&&Et(),it||(\\\"zoom\\\"===o?(St.moveFn=Lt,St.doneFn=Ot,St.minDrag=1,function(e,r,n){var a=vt.getBoundingClientRect();mt=r-a.left,yt=n-a.top,xt={l:mt,r:mt,w:0,t:yt,b:yt,h:0},bt=t._hmpixcount?t._hmlumcount/t._hmpixcount:i(t._fullLayout.plot_bgcolor).getLuminance(),wt=!1,kt=\\\"xy\\\",Mt=!1,Tt=D(ft,bt,$,J,_t=\\\"M0,0H\\\"+K+\\\"V\\\"+Q+\\\"H0V0\\\"),At=P(ft,$,J)}(0,r,n)):\\\"pan\\\"===o&&(St.moveFn=Ft,St.doneFn=jt))),t._fullLayout._redrag=function(){var e=t._dragdata;e&&e.element===vt&&(j(t._fullLayout.dragmode)||(dt(),Vt([0,0,K,Q]),St.moveFn(e.dx,e.dy)))}},d.init(St);var It=[0,0,K,Q],Dt=null,Pt=T.REDRAWDELAY,Rt=e.mainplot?t._fullLayout._plots[e.mainplot]:e;function Ft(e,r){if(!t._transitioningWithDuration){if(t._fullLayout._replotting=!0,\\\"ew\\\"===rt||\\\"ns\\\"===nt)return rt&&(O(X,e),Bt(\\\"x\\\")),nt&&(O(Z,r),Bt(\\\"y\\\")),Vt([rt?-e:0,nt?-r:0,K,Q]),Nt(),void t.emit(\\\"plotly_relayouting\\\",ut);if(tt.isSubplotConstrained&&rt&&nt){var n=\\\"w\\\"===rt==(\\\"n\\\"===nt)?1:-1,i=(e/K+n*r/Q)/2;e=i*K,r=n*i*Q}\\\"w\\\"===rt?e=l(X,0,e):\\\"e\\\"===rt?e=l(X,1,-e):rt||(e=0),\\\"n\\\"===nt?r=l(Z,1,r):\\\"s\\\"===nt?r=l(Z,0,-r):nt||(r=0);var a=\\\"w\\\"===rt?e:0,o=\\\"n\\\"===nt?r:0;if(tt.isSubplotConstrained){var s;if(!rt&&1===nt.length){for(s=0;s<X.length;s++)X[s].range=X[s]._r.slice(),k(X[s],1-r/Q);a=(e=r*K/Q)/2}if(!nt&&1===rt.length){for(s=0;s<Z.length;s++)Z[s].range=Z[s]._r.slice(),k(Z[s],1-e/K);o=(r=e*Q/K)/2}}Bt(\\\"x\\\"),Bt(\\\"y\\\"),Vt([a,o,K-e,Q-r]),Nt(),t.emit(\\\"plotly_relayouting\\\",ut)}function l(t,e,r){for(var n,i,a=1-e,o=0;o<t.length;o++){var s=t[o];if(!s.fixedrange){n=s,i=s._rl[a]+(s._rl[e]-s._rl[a])/I(r/s._length);var l=s.l2r(i);!1!==l&&void 0!==l&&(s.range[e]=l)}}return n._length*(n._rl[e]-i)/(n._rl[e]-n._rl[a])}}function Bt(t,e){for(var r=et.isSubplotConstrained?{x:Z,y:X}[t]:et[t+\\\"axes\\\"],n=et.isSubplotConstrained?{x:X,y:Z}[t]:[],i=0;i<r.length;i++){var a=r[i],o=a._id,s=et.xLinks[o]||et.yLinks[o],l=n[0]||Y[s]||W[s];l&&(e?(e[a._name+\\\".range[0]\\\"]=e[l._name+\\\".range[0]\\\"],e[a._name+\\\".range[1]\\\"]=e[l._name+\\\".range[1]\\\"]):a.range=l.range.slice())}}function Nt(){var e,r=[];function n(t){for(e=0;e<t.length;e++)t[e].fixedrange||r.push(t[e]._id)}for(at&&(n(X),n(tt.xaxes),n(et.xaxes)),ot&&(n(Z),n(tt.yaxes),n(et.yaxes)),ut={},e=0;e<r.length;e++){var i=r[e],a=x(t,i);h.drawOne(t,a,{skipTitle:!0}),ut[a._name+\\\".range[0]\\\"]=a.range[0],ut[a._name+\\\".range[1]\\\"]=a.range[1]}h.redrawComponents(t,r)}function jt(){Vt([0,0,K,Q]),s.syncOrAsync([y.previousPromises,function(){t._fullLayout._replotting=!1,o.call(\\\"_guiRelayout\\\",t,ut)}],t)}function Vt(e){var r,n,i,a,l=t._fullLayout,c=l._plots,f=l._subplots.cartesian;if(lt&&o.subplotsRegistry.splom.drag(t),st)for(r=0;r<f.length;r++)if(i=(n=c[f[r]]).xaxis,a=n.yaxis,n._scene){var h=s.simpleMap(i.range,i.r2l),p=s.simpleMap(a.range,a.r2l);n._scene.update({range:[h[0],p[0],h[1],p[1]]})}if((lt||st)&&(v(t),m(t)),ct){var d=e[2]/F._length,g=e[3]/G._length;for(r=0;r<f.length;r++){i=(n=c[f[r]]).xaxis,a=n.yaxis;var y,x,b,_,w=at&&!i.fixedrange&&Y[i._id],k=ot&&!a.fixedrange&&W[a._id];if(w?(y=d,b=E?e[0]:qt(i,y)):et.xaHash[i._id]?(y=d,b=e[0]*i._length/F._length):et.yaHash[i._id]?(y=g,b=\\\"ns\\\"===nt?-e[1]*i._length/G._length:qt(i,y,{n:\\\"top\\\",s:\\\"bottom\\\"}[nt])):b=Ht(i,y=Ut(i,d,g)),k?(x=g,_=S?e[1]:qt(a,x)):et.yaHash[a._id]?(x=g,_=e[1]*a._length/G._length):et.xaHash[a._id]?(x=d,_=\\\"ew\\\"===rt?-e[0]*a._length/F._length:qt(a,x,{e:\\\"right\\\",w:\\\"left\\\"}[rt])):_=Ht(a,x=Ut(a,d,g)),y||x){y||(y=1),x||(x=1);var T=i._offset-b/y,A=a._offset-_/x;n.clipRect.call(u.setTranslate,b,_).call(u.setScale,y,x),n.plot.call(u.setTranslate,T,A).call(u.setScale,1/y,1/x),y===n.xScaleFactor&&x===n.yScaleFactor||(u.setPointGroupScale(n.zoomScalePts,y,x),u.setTextPointsScale(n.zoomScaleTxt,y,x)),u.hideOutsideRangePoints(n.clipOnAxisFalseTraces,n),n.xScaleFactor=y,n.yScaleFactor=x}}}}function Ut(t,e,r){return t.fixedrange?0:at&&tt.xaHash[t._id]?e:ot&&(tt.isSubplotConstrained?tt.xaHash:tt.yaHash)[t._id]?r:0}function Ht(t,e){return e?(t.range=t._r.slice(),k(t,e),qt(t,e)):0}function qt(t,e,r){return t._length*(1-e)*g[r||t.constraintoward||\\\"middle\\\"]}return S.length*E.length!=1&&H(vt,function(e){if(t._context._scrollZoom.cartesian||t._fullLayout._enablescrollzoom){if(Et(),t._transitioningWithDuration)return e.preventDefault(),void e.stopPropagation();dt(),clearTimeout(Dt);var r=-e.deltaY;if(isFinite(r)||(r=e.wheelDelta/10),isFinite(r)){var n,i=Math.exp(-Math.min(Math.max(r,-20),20)/200),a=Rt.draglayer.select(\\\".nsewdrag\\\").node().getBoundingClientRect(),o=(e.clientX-a.left)/a.width,l=(a.bottom-e.clientY)/a.height;if(at){for(E||(o=.5),n=0;n<X.length;n++)c(X[n],o,i);Bt(\\\"x\\\"),It[2]*=i,It[0]+=It[2]*o*(1/i-1)}if(ot){for(S||(l=.5),n=0;n<Z.length;n++)c(Z[n],l,i);Bt(\\\"y\\\"),It[3]*=i,It[1]+=It[3]*(1-l)*(1/i-1)}Vt(It),Nt(),t.emit(\\\"plotly_relayouting\\\",ut),Dt=setTimeout(function(){It=[0,0,K,Q],jt()},Pt),e.preventDefault()}else s.log(\\\"Did not find wheel motion attributes: \\\",e)}function c(t,e,r){if(!t.fixedrange){var n=s.simpleMap(t.range,t.r2l),i=n[0]+(n[1]-n[0])*e;t.range=n.map(function(e){return t.l2r(i+(e-i)*r)})}}}),vt},makeDragger:E,makeRectDragger:C,makeZoombox:D,makeCorners:P,updateZoombox:R,xyCorners:V,transitionZoombox:F,removeZoombox:B,showDoubleClickNotifier:N,attachWheelEventHandler:H}},{\\\"../../components/color\\\":580,\\\"../../components/dragelement\\\":598,\\\"../../components/drawing\\\":601,\\\"../../components/fx\\\":619,\\\"../../constants/alignment\\\":675,\\\"../../lib\\\":703,\\\"../../lib/clear_gl_canvases\\\":688,\\\"../../lib/setcursor\\\":723,\\\"../../lib/svg_text_utils\\\":727,\\\"../../plot_api/subroutines\\\":742,\\\"../../registry\\\":831,\\\"../plots\\\":812,\\\"./axes\\\":751,\\\"./axis_ids\\\":754,\\\"./constants\\\":757,\\\"./scale_zoom\\\":767,\\\"./select\\\":768,d3:157,\\\"has-passive-events\\\":406,tinycolor2:524}],760:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../components/fx\\\"),a=t(\\\"../../components/dragelement\\\"),o=t(\\\"../../lib/setcursor\\\"),s=t(\\\"./dragbox\\\").makeDragBox,l=t(\\\"./constants\\\").DRAGGERSIZE;r.initInteractions=function(t){var e=t._fullLayout;if(t._context.staticPlot)n.select(t).selectAll(\\\".drag\\\").remove();else if(e._has(\\\"cartesian\\\")||e._has(\\\"splom\\\")){Object.keys(e._plots||{}).sort(function(t,r){if((e._plots[t].mainplot&&!0)===(e._plots[r].mainplot&&!0)){var n=t.split(\\\"y\\\"),i=r.split(\\\"y\\\");return n[0]===i[0]?Number(n[1]||1)-Number(i[1]||1):Number(n[0]||1)-Number(i[0]||1)}return e._plots[t].mainplot?1:-1}).forEach(function(r){var n=e._plots[r],o=n.xaxis,c=n.yaxis;if(!n.mainplot){var u=s(t,n,o._offset,c._offset,o._length,c._length,\\\"ns\\\",\\\"ew\\\");u.onmousemove=function(e){t._fullLayout._rehover=function(){t._fullLayout._hoversubplot===r&&i.hover(t,e,r)},i.hover(t,e,r),t._fullLayout._lasthover=u,t._fullLayout._hoversubplot=r},u.onmouseout=function(e){t._dragging||(t._fullLayout._hoversubplot=null,a.unhover(t,e))},t._context.showAxisDragHandles&&(s(t,n,o._offset-l,c._offset-l,l,l,\\\"n\\\",\\\"w\\\"),s(t,n,o._offset+o._length,c._offset-l,l,l,\\\"n\\\",\\\"e\\\"),s(t,n,o._offset-l,c._offset+c._length,l,l,\\\"s\\\",\\\"w\\\"),s(t,n,o._offset+o._length,c._offset+c._length,l,l,\\\"s\\\",\\\"e\\\"))}if(t._context.showAxisDragHandles){if(r===o._mainSubplot){var f=o._mainLinePosition;\\\"top\\\"===o.side&&(f-=l),s(t,n,o._offset+.1*o._length,f,.8*o._length,l,\\\"\\\",\\\"ew\\\"),s(t,n,o._offset,f,.1*o._length,l,\\\"\\\",\\\"w\\\"),s(t,n,o._offset+.9*o._length,f,.1*o._length,l,\\\"\\\",\\\"e\\\")}if(r===c._mainSubplot){var h=c._mainLinePosition;\\\"right\\\"!==c.side&&(h-=l),s(t,n,h,c._offset+.1*c._length,l,.8*c._length,\\\"ns\\\",\\\"\\\"),s(t,n,h,c._offset+.9*c._length,l,.1*c._length,\\\"s\\\",\\\"\\\"),s(t,n,h,c._offset,l,.1*c._length,\\\"n\\\",\\\"\\\")}}});var o=e._hoverlayer.node();o.onmousemove=function(r){r.target=t._fullLayout._lasthover,i.hover(t,r,e._hoversubplot)},o.onclick=function(e){e.target=t._fullLayout._lasthover,i.click(t,e)},o.onmousedown=function(e){t._fullLayout._lasthover.onmousedown(e)},r.updateFx(t)}},r.updateFx=function(t){var e=t._fullLayout,r=\\\"pan\\\"===e.dragmode?\\\"move\\\":\\\"crosshair\\\";o(e._draggers,r)}},{\\\"../../components/dragelement\\\":598,\\\"../../components/fx\\\":619,\\\"../../lib/setcursor\\\":723,\\\"./constants\\\":757,\\\"./dragbox\\\":759,d3:157}],761:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../lib\\\");e.exports=function(t){return function(e,r){var a=e[t];if(Array.isArray(a))for(var o=n.subplotsRegistry.cartesian,s=o.idRegex,l=r._subplots,c=l.xaxis,u=l.yaxis,f=l.cartesian,h=r._has(\\\"cartesian\\\")||r._has(\\\"gl2d\\\"),p=0;p<a.length;p++){var d=a[p];if(i.isPlainObject(d)){var g=d.xref,v=d.yref,m=s.x.test(g),y=s.y.test(v);if(m||y){h||i.pushUnique(r._basePlotModules,o);var x=!1;m&&-1===c.indexOf(g)&&(c.push(g),x=!0),y&&-1===u.indexOf(v)&&(u.push(v),x=!0),x&&m&&y&&f.push(g+v)}}}}}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831}],762:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"../../lib\\\"),o=t(\\\"../plots\\\"),s=t(\\\"../../components/drawing\\\"),l=t(\\\"../get_data\\\").getModuleCalcData,c=t(\\\"./axis_ids\\\"),u=t(\\\"./constants\\\"),f=t(\\\"../../constants/xmlns_namespaces\\\"),h=a.ensureSingle;function p(t,e,r){return a.ensureSingle(t,e,r,function(t){t.datum(r)})}function d(t,e,r,a,o){for(var c,f,h,p=u.traceLayerClasses,d=t._fullLayout,g=d._modules,v=[],m=[],y=0;y<g.length;y++){var x=(c=g[y]).name,b=i.modules[x].categories;if(b.svg){var _=c.layerName||x+\\\"layer\\\",w=c.plot;h=(f=l(r,w))[0],r=f[1],h.length&&v.push({i:p.indexOf(_),className:_,plotMethod:w,cdModule:h}),b.zoomScale&&m.push(\\\".\\\"+_)}}v.sort(function(t,e){return t.i-e.i});var k=e.plot.selectAll(\\\"g.mlayer\\\").data(v,function(t){return t.className});if(k.enter().append(\\\"g\\\").attr(\\\"class\\\",function(t){return t.className}).classed(\\\"mlayer\\\",!0),k.exit().remove(),k.order(),k.each(function(r){var i=n.select(this),l=r.className;r.plotMethod(t,e,r.cdModule,i,a,o),-1===u.clipOnAxisFalseQuery.indexOf(\\\".\\\"+l)&&s.setClipUrl(i,e.layerClipId,t)}),d._has(\\\"scattergl\\\")&&(c=i.getModule(\\\"scattergl\\\"),h=l(r,c)[0],c.plot(t,e,h)),!t._context.staticPlot&&(e._hasClipOnAxisFalse&&(e.clipOnAxisFalseTraces=e.plot.selectAll(u.clipOnAxisFalseQuery.join(\\\",\\\")).selectAll(\\\".trace\\\")),m.length)){var T=e.plot.selectAll(m.join(\\\",\\\")).selectAll(\\\".trace\\\");e.zoomScalePts=T.selectAll(\\\"path.point\\\"),e.zoomScaleTxt=T.selectAll(\\\".textpoint\\\")}}function g(t,e){var r=e.plotgroup,n=e.id,i=u.layerValue2layerClass[e.xaxis.layer],a=u.layerValue2layerClass[e.yaxis.layer],o=t._fullLayout._hasOnlyLargeSploms;if(e.mainplot){var s=e.mainplotinfo,l=s.plotgroup,f=n+\\\"-x\\\",d=n+\\\"-y\\\";e.gridlayer=s.gridlayer,e.zerolinelayer=s.zerolinelayer,h(s.overlinesBelow,\\\"path\\\",f),h(s.overlinesBelow,\\\"path\\\",d),h(s.overaxesBelow,\\\"g\\\",f),h(s.overaxesBelow,\\\"g\\\",d),e.plot=h(s.overplot,\\\"g\\\",n),h(s.overlinesAbove,\\\"path\\\",f),h(s.overlinesAbove,\\\"path\\\",d),h(s.overaxesAbove,\\\"g\\\",f),h(s.overaxesAbove,\\\"g\\\",d),e.xlines=l.select(\\\".overlines-\\\"+i).select(\\\".\\\"+f),e.ylines=l.select(\\\".overlines-\\\"+a).select(\\\".\\\"+d),e.xaxislayer=l.select(\\\".overaxes-\\\"+i).select(\\\".\\\"+f),e.yaxislayer=l.select(\\\".overaxes-\\\"+a).select(\\\".\\\"+d)}else if(o)e.xlines=h(r,\\\"path\\\",\\\"xlines-above\\\"),e.ylines=h(r,\\\"path\\\",\\\"ylines-above\\\"),e.xaxislayer=h(r,\\\"g\\\",\\\"xaxislayer-above\\\"),e.yaxislayer=h(r,\\\"g\\\",\\\"yaxislayer-above\\\");else{var g=h(r,\\\"g\\\",\\\"layer-subplot\\\");e.shapelayer=h(g,\\\"g\\\",\\\"shapelayer\\\"),e.imagelayer=h(g,\\\"g\\\",\\\"imagelayer\\\"),e.gridlayer=h(r,\\\"g\\\",\\\"gridlayer\\\"),e.zerolinelayer=h(r,\\\"g\\\",\\\"zerolinelayer\\\"),h(r,\\\"path\\\",\\\"xlines-below\\\"),h(r,\\\"path\\\",\\\"ylines-below\\\"),e.overlinesBelow=h(r,\\\"g\\\",\\\"overlines-below\\\"),h(r,\\\"g\\\",\\\"xaxislayer-below\\\"),h(r,\\\"g\\\",\\\"yaxislayer-below\\\"),e.overaxesBelow=h(r,\\\"g\\\",\\\"overaxes-below\\\"),e.plot=h(r,\\\"g\\\",\\\"plot\\\"),e.overplot=h(r,\\\"g\\\",\\\"overplot\\\"),e.xlines=h(r,\\\"path\\\",\\\"xlines-above\\\"),e.ylines=h(r,\\\"path\\\",\\\"ylines-above\\\"),e.overlinesAbove=h(r,\\\"g\\\",\\\"overlines-above\\\"),h(r,\\\"g\\\",\\\"xaxislayer-above\\\"),h(r,\\\"g\\\",\\\"yaxislayer-above\\\"),e.overaxesAbove=h(r,\\\"g\\\",\\\"overaxes-above\\\"),e.xlines=r.select(\\\".xlines-\\\"+i),e.ylines=r.select(\\\".ylines-\\\"+a),e.xaxislayer=r.select(\\\".xaxislayer-\\\"+i),e.yaxislayer=r.select(\\\".yaxislayer-\\\"+a)}o||(p(e.gridlayer,\\\"g\\\",e.xaxis._id),p(e.gridlayer,\\\"g\\\",e.yaxis._id),e.gridlayer.selectAll(\\\"g\\\").map(function(t){return t[0]}).sort(c.idSort)),e.xlines.style(\\\"fill\\\",\\\"none\\\").classed(\\\"crisp\\\",!0),e.ylines.style(\\\"fill\\\",\\\"none\\\").classed(\\\"crisp\\\",!0)}function v(t,e){if(t){var r={};for(var i in t.each(function(t){var i=t[0];n.select(this).remove(),m(i,e),r[i]=!0}),e._plots)for(var a=e._plots[i].overlays||[],o=0;o<a.length;o++){var s=a[o];r[s.id]&&s.plot.selectAll(\\\".trace\\\").remove()}}}function m(t,e){e._draggers.selectAll(\\\"g.\\\"+t).remove(),e._defs.select(\\\"#clip\\\"+e._uid+t+\\\"plot\\\").remove()}r.name=\\\"cartesian\\\",r.attr=[\\\"xaxis\\\",\\\"yaxis\\\"],r.idRoot=[\\\"x\\\",\\\"y\\\"],r.idRegex=u.idRegex,r.attrRegex=u.attrRegex,r.attributes=t(\\\"./attributes\\\"),r.layoutAttributes=t(\\\"./layout_attributes\\\"),r.supplyLayoutDefaults=t(\\\"./layout_defaults\\\"),r.transitionAxes=t(\\\"./transition_axes\\\"),r.finalizeSubplots=function(t,e){var r,n,i,o=e._subplots,s=o.xaxis,l=o.yaxis,f=o.cartesian,h=f.concat(o.gl2d||[]),p={},d={};for(r=0;r<h.length;r++){var g=h[r].split(\\\"y\\\");p[g[0]]=1,d[\\\"y\\\"+g[1]]=1}for(r=0;r<s.length;r++)p[n=s[r]]||(i=(t[c.id2name(n)]||{}).anchor,u.idRegex.y.test(i)||(i=\\\"y\\\"),f.push(n+i),h.push(n+i),d[i]||(d[i]=1,a.pushUnique(l,i)));for(r=0;r<l.length;r++)d[i=l[r]]||(n=(t[c.id2name(i)]||{}).anchor,u.idRegex.x.test(n)||(n=\\\"x\\\"),f.push(n+i),h.push(n+i),p[n]||(p[n]=1,a.pushUnique(s,n)));if(!h.length){for(var v in n=\\\"\\\",i=\\\"\\\",t){if(u.attrRegex.test(v))\\\"x\\\"===v.charAt(0)?(!n||+v.substr(5)<+n.substr(5))&&(n=v):(!i||+v.substr(5)<+i.substr(5))&&(i=v)}n=n?c.name2id(n):\\\"x\\\",i=i?c.name2id(i):\\\"y\\\",s.push(n),l.push(i),f.push(n+i)}},r.plot=function(t,e,r,n){var i,a=t._fullLayout,o=a._subplots.cartesian,s=t.calcdata;if(!Array.isArray(e))for(e=[],i=0;i<s.length;i++)e.push(i);for(i=0;i<o.length;i++){for(var l,c=o[i],u=a._plots[c],f=[],h=0;h<s.length;h++){var p=s[h],g=p[0].trace;g.xaxis+g.yaxis===c&&((-1!==e.indexOf(g.index)||g.carpet)&&(l&&l[0].trace.xaxis+l[0].trace.yaxis===c&&-1!==[\\\"tonextx\\\",\\\"tonexty\\\",\\\"tonext\\\"].indexOf(g.fill)&&-1===f.indexOf(l)&&f.push(l),f.push(p)),l=p)}d(t,u,f,r,n)}},r.clean=function(t,e,r,n){var i,a,o,s=n._plots||{},l=e._plots||{},u=n._subplots||{};if(n._hasOnlyLargeSploms&&!e._hasOnlyLargeSploms)for(o in s)(i=s[o]).plotgroup&&i.plotgroup.remove();var f=n._has&&n._has(\\\"gl\\\"),h=e._has&&e._has(\\\"gl\\\");if(f&&!h)for(o in s)(i=s[o])._scene&&i._scene.destroy();if(u.xaxis&&u.yaxis){var p=c.listIds({_fullLayout:n});for(a=0;a<p.length;a++){var d=p[a];e[c.id2name(d)]||n._infolayer.selectAll(\\\".g-\\\"+d+\\\"title\\\").remove()}}var g=n._has&&n._has(\\\"cartesian\\\"),y=e._has&&e._has(\\\"cartesian\\\");if(g&&!y)v(n._cartesianlayer.selectAll(\\\".subplot\\\"),n),n._defs.selectAll(\\\".axesclip\\\").remove(),delete n._axisConstraintGroups;else if(u.cartesian)for(a=0;a<u.cartesian.length;a++){var x=u.cartesian[a];if(!l[x]){var b=\\\".\\\"+x+\\\",.\\\"+x+\\\"-x,.\\\"+x+\\\"-y\\\";n._cartesianlayer.selectAll(b).remove(),m(x,n)}}},r.drawFramework=function(t){var e=t._fullLayout,r=function(t){var e,r,n,i,a,o,s=t._fullLayout,l=s._subplots.cartesian,c=l.length,u=[],f=[];for(e=0;e<c;e++){n=l[e],i=s._plots[n],a=i.xaxis,o=i.yaxis;var h=a._mainAxis,p=o._mainAxis,d=h._id+p._id,g=s._plots[d];i.overlays=[],d!==n&&g?(i.mainplot=d,i.mainplotinfo=g,f.push(n)):(i.mainplot=void 0,i.mainPlotinfo=void 0,u.push(n))}for(e=0;e<f.length;e++)n=f[e],(i=s._plots[n]).mainplotinfo.overlays.push(i);var v=u.concat(f),m=new Array(c);for(e=0;e<c;e++){n=v[e],i=s._plots[n],a=i.xaxis,o=i.yaxis;var y=[n,a.layer,o.layer,a.overlaying||\\\"\\\",o.overlaying||\\\"\\\"];for(r=0;r<i.overlays.length;r++)y.push(i.overlays[r].id);m[e]=y}return m}(t),i=e._cartesianlayer.selectAll(\\\".subplot\\\").data(r,String);i.enter().append(\\\"g\\\").attr(\\\"class\\\",function(t){return\\\"subplot \\\"+t[0]}),i.order(),i.exit().call(v,e),i.each(function(r){var i=r[0],a=e._plots[i];a.plotgroup=n.select(this),g(t,a),a.draglayer=h(e._draggers,\\\"g\\\",i)})},r.rangePlot=function(t,e,r){g(t,e),d(t,e,r),o.style(t)},r.toSVG=function(t){var e=t._fullLayout._glimages,r=n.select(t).selectAll(\\\".svg-container\\\");r.filter(function(t,e){return e===r.size()-1}).selectAll(\\\".gl-canvas-context, .gl-canvas-focus\\\").each(function(){var t=this.toDataURL(\\\"image/png\\\");e.append(\\\"svg:image\\\").attr({xmlns:f.svg,\\\"xlink:href\\\":t,preserveAspectRatio:\\\"none\\\",x:0,y:0,width:this.width,height:this.height})})},r.updateFx=t(\\\"./graph_interact\\\").updateFx},{\\\"../../components/drawing\\\":601,\\\"../../constants/xmlns_namespaces\\\":681,\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"../get_data\\\":786,\\\"../plots\\\":812,\\\"./attributes\\\":749,\\\"./axis_ids\\\":754,\\\"./constants\\\":757,\\\"./graph_interact\\\":760,\\\"./layout_attributes\\\":763,\\\"./layout_defaults\\\":764,\\\"./transition_axes\\\":773,d3:157}],763:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../font_attributes\\\"),i=t(\\\"../../components/color/attributes\\\"),a=t(\\\"../../components/drawing/attributes\\\").dash,o=t(\\\"../../lib/extend\\\").extendFlat,s=t(\\\"../../plot_api/plot_template\\\").templatedArray,l=t(\\\"./constants\\\");e.exports={visible:{valType:\\\"boolean\\\",editType:\\\"plot\\\"},color:{valType:\\\"color\\\",dflt:i.defaultLine,editType:\\\"ticks\\\"},title:{text:{valType:\\\"string\\\",editType:\\\"ticks\\\"},font:n({editType:\\\"ticks\\\"}),editType:\\\"ticks\\\"},type:{valType:\\\"enumerated\\\",values:[\\\"-\\\",\\\"linear\\\",\\\"log\\\",\\\"date\\\",\\\"category\\\",\\\"multicategory\\\"],dflt:\\\"-\\\",editType:\\\"calc\\\",_noTemplating:!0},autorange:{valType:\\\"enumerated\\\",values:[!0,!1,\\\"reversed\\\"],dflt:!0,editType:\\\"axrange\\\",impliedEdits:{\\\"range[0]\\\":void 0,\\\"range[1]\\\":void 0}},rangemode:{valType:\\\"enumerated\\\",values:[\\\"normal\\\",\\\"tozero\\\",\\\"nonnegative\\\"],dflt:\\\"normal\\\",editType:\\\"plot\\\"},range:{valType:\\\"info_array\\\",items:[{valType:\\\"any\\\",editType:\\\"axrange\\\",impliedEdits:{\\\"^autorange\\\":!1},anim:!0},{valType:\\\"any\\\",editType:\\\"axrange\\\",impliedEdits:{\\\"^autorange\\\":!1},anim:!0}],editType:\\\"axrange\\\",impliedEdits:{autorange:!1},anim:!0},fixedrange:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"calc\\\"},scaleanchor:{valType:\\\"enumerated\\\",values:[l.idRegex.x.toString(),l.idRegex.y.toString()],editType:\\\"plot\\\"},scaleratio:{valType:\\\"number\\\",min:0,dflt:1,editType:\\\"plot\\\"},constrain:{valType:\\\"enumerated\\\",values:[\\\"range\\\",\\\"domain\\\"],dflt:\\\"range\\\",editType:\\\"plot\\\"},constraintoward:{valType:\\\"enumerated\\\",values:[\\\"left\\\",\\\"center\\\",\\\"right\\\",\\\"top\\\",\\\"middle\\\",\\\"bottom\\\"],editType:\\\"plot\\\"},matches:{valType:\\\"enumerated\\\",values:[l.idRegex.x.toString(),l.idRegex.y.toString()],editType:\\\"calc\\\"},tickmode:{valType:\\\"enumerated\\\",values:[\\\"auto\\\",\\\"linear\\\",\\\"array\\\"],editType:\\\"ticks\\\",impliedEdits:{tick0:void 0,dtick:void 0}},nticks:{valType:\\\"integer\\\",min:0,dflt:0,editType:\\\"ticks\\\"},tick0:{valType:\\\"any\\\",editType:\\\"ticks\\\",impliedEdits:{tickmode:\\\"linear\\\"}},dtick:{valType:\\\"any\\\",editType:\\\"ticks\\\",impliedEdits:{tickmode:\\\"linear\\\"}},tickvals:{valType:\\\"data_array\\\",editType:\\\"ticks\\\"},ticktext:{valType:\\\"data_array\\\",editType:\\\"ticks\\\"},ticks:{valType:\\\"enumerated\\\",values:[\\\"outside\\\",\\\"inside\\\",\\\"\\\"],editType:\\\"ticks\\\"},tickson:{valType:\\\"enumerated\\\",values:[\\\"labels\\\",\\\"boundaries\\\"],dflt:\\\"labels\\\",editType:\\\"ticks\\\"},mirror:{valType:\\\"enumerated\\\",values:[!0,\\\"ticks\\\",!1,\\\"all\\\",\\\"allticks\\\"],dflt:!1,editType:\\\"ticks+layoutstyle\\\"},ticklen:{valType:\\\"number\\\",min:0,dflt:5,editType:\\\"ticks\\\"},tickwidth:{valType:\\\"number\\\",min:0,dflt:1,editType:\\\"ticks\\\"},tickcolor:{valType:\\\"color\\\",dflt:i.defaultLine,editType:\\\"ticks\\\"},showticklabels:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"ticks\\\"},automargin:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"ticks\\\"},showspikes:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"modebar\\\"},spikecolor:{valType:\\\"color\\\",dflt:null,editType:\\\"none\\\"},spikethickness:{valType:\\\"number\\\",dflt:3,editType:\\\"none\\\"},spikedash:o({},a,{dflt:\\\"dash\\\",editType:\\\"none\\\"}),spikemode:{valType:\\\"flaglist\\\",flags:[\\\"toaxis\\\",\\\"across\\\",\\\"marker\\\"],dflt:\\\"toaxis\\\",editType:\\\"none\\\"},spikesnap:{valType:\\\"enumerated\\\",values:[\\\"data\\\",\\\"cursor\\\"],dflt:\\\"data\\\",editType:\\\"none\\\"},tickfont:n({editType:\\\"ticks\\\"}),tickangle:{valType:\\\"angle\\\",dflt:\\\"auto\\\",editType:\\\"ticks\\\"},tickprefix:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"ticks\\\"},showtickprefix:{valType:\\\"enumerated\\\",values:[\\\"all\\\",\\\"first\\\",\\\"last\\\",\\\"none\\\"],dflt:\\\"all\\\",editType:\\\"ticks\\\"},ticksuffix:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"ticks\\\"},showticksuffix:{valType:\\\"enumerated\\\",values:[\\\"all\\\",\\\"first\\\",\\\"last\\\",\\\"none\\\"],dflt:\\\"all\\\",editType:\\\"ticks\\\"},showexponent:{valType:\\\"enumerated\\\",values:[\\\"all\\\",\\\"first\\\",\\\"last\\\",\\\"none\\\"],dflt:\\\"all\\\",editType:\\\"ticks\\\"},exponentformat:{valType:\\\"enumerated\\\",values:[\\\"none\\\",\\\"e\\\",\\\"E\\\",\\\"power\\\",\\\"SI\\\",\\\"B\\\"],dflt:\\\"B\\\",editType:\\\"ticks\\\"},separatethousands:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"ticks\\\"},tickformat:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"ticks\\\"},tickformatstops:s(\\\"tickformatstop\\\",{enabled:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"ticks\\\"},dtickrange:{valType:\\\"info_array\\\",items:[{valType:\\\"any\\\",editType:\\\"ticks\\\"},{valType:\\\"any\\\",editType:\\\"ticks\\\"}],editType:\\\"ticks\\\"},value:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"ticks\\\"},editType:\\\"ticks\\\"}),hoverformat:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"none\\\"},showline:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"ticks+layoutstyle\\\"},linecolor:{valType:\\\"color\\\",dflt:i.defaultLine,editType:\\\"layoutstyle\\\"},linewidth:{valType:\\\"number\\\",min:0,dflt:1,editType:\\\"ticks+layoutstyle\\\"},showgrid:{valType:\\\"boolean\\\",editType:\\\"ticks\\\"},gridcolor:{valType:\\\"color\\\",dflt:i.lightLine,editType:\\\"ticks\\\"},gridwidth:{valType:\\\"number\\\",min:0,dflt:1,editType:\\\"ticks\\\"},zeroline:{valType:\\\"boolean\\\",editType:\\\"ticks\\\"},zerolinecolor:{valType:\\\"color\\\",dflt:i.defaultLine,editType:\\\"ticks\\\"},zerolinewidth:{valType:\\\"number\\\",dflt:1,editType:\\\"ticks\\\"},showdividers:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"ticks\\\"},dividercolor:{valType:\\\"color\\\",dflt:i.defaultLine,editType:\\\"ticks\\\"},dividerwidth:{valType:\\\"number\\\",dflt:1,editType:\\\"ticks\\\"},anchor:{valType:\\\"enumerated\\\",values:[\\\"free\\\",l.idRegex.x.toString(),l.idRegex.y.toString()],editType:\\\"plot\\\"},side:{valType:\\\"enumerated\\\",values:[\\\"top\\\",\\\"bottom\\\",\\\"left\\\",\\\"right\\\"],editType:\\\"plot\\\"},overlaying:{valType:\\\"enumerated\\\",values:[\\\"free\\\",l.idRegex.x.toString(),l.idRegex.y.toString()],editType:\\\"plot\\\"},layer:{valType:\\\"enumerated\\\",values:[\\\"above traces\\\",\\\"below traces\\\"],dflt:\\\"above traces\\\",editType:\\\"plot\\\"},domain:{valType:\\\"info_array\\\",items:[{valType:\\\"number\\\",min:0,max:1,editType:\\\"plot\\\"},{valType:\\\"number\\\",min:0,max:1,editType:\\\"plot\\\"}],dflt:[0,1],editType:\\\"plot\\\"},position:{valType:\\\"number\\\",min:0,max:1,dflt:0,editType:\\\"plot\\\"},categoryorder:{valType:\\\"enumerated\\\",values:[\\\"trace\\\",\\\"category ascending\\\",\\\"category descending\\\",\\\"array\\\",\\\"total ascending\\\",\\\"total descending\\\",\\\"min ascending\\\",\\\"min descending\\\",\\\"max ascending\\\",\\\"max descending\\\",\\\"sum ascending\\\",\\\"sum descending\\\",\\\"mean ascending\\\",\\\"mean descending\\\",\\\"median ascending\\\",\\\"median descending\\\"],dflt:\\\"trace\\\",editType:\\\"calc\\\"},categoryarray:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},uirevision:{valType:\\\"any\\\",editType:\\\"none\\\"},editType:\\\"calc\\\",_deprecated:{autotick:{valType:\\\"boolean\\\",editType:\\\"ticks\\\"},title:{valType:\\\"string\\\",editType:\\\"ticks\\\"},titlefont:n({editType:\\\"ticks\\\"})}}},{\\\"../../components/color/attributes\\\":579,\\\"../../components/drawing/attributes\\\":600,\\\"../../lib/extend\\\":693,\\\"../../plot_api/plot_template\\\":741,\\\"../font_attributes\\\":777,\\\"./constants\\\":757}],764:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../components/color\\\"),a=t(\\\"../../plot_api/plot_template\\\"),o=t(\\\"../layout_attributes\\\"),s=t(\\\"./layout_attributes\\\"),l=t(\\\"./type_defaults\\\"),c=t(\\\"./axis_defaults\\\"),u=t(\\\"./constraints\\\").handleConstraintDefaults,f=t(\\\"./position_defaults\\\"),h=t(\\\"./axis_ids\\\"),p=h.id2name,d=h.name2id,g=t(\\\"../../registry\\\"),v=g.traceIs,m=g.getComponentMethod;function y(t,e,r){Array.isArray(t[e])?t[e].push(r):t[e]=[r]}e.exports=function(t,e,r){var h,g,x={},b={},_={},w={},k={},T={},A={},M={},S={};for(h=0;h<r.length;h++){var E=r[h];if(v(E,\\\"cartesian\\\")||v(E,\\\"gl2d\\\")){var C,L;if(E.xaxis)y(x,C=p(E.xaxis),E);else if(E.xaxes)for(g=0;g<E.xaxes.length;g++)y(x,p(E.xaxes[g]),E);if(E.yaxis)y(x,L=p(E.yaxis),E);else if(E.yaxes)for(g=0;g<E.yaxes.length;g++)y(x,p(E.yaxes[g]),E);if(\\\"funnel\\\"===E.type?\\\"h\\\"===E.orientation?(C&&(b[C]=!0),L&&(A[L]=!0)):L&&(_[L]=!0):(L&&(k[L]=!0,T[L]=!0),v(E,\\\"carpet\\\")&&(\\\"carpet\\\"!==E.type||E._cheater)||C&&(w[C]=!0)),\\\"carpet\\\"===E.type&&E._cheater&&C&&(b[C]=!0),v(E,\\\"2dMap\\\")&&(M[C]=!0,M[L]=!0),v(E,\\\"oriented\\\"))S[\\\"h\\\"===E.orientation?L:C]=!0}}var z=e._subplots,O=z.xaxis,I=z.yaxis,D=n.simpleMap(O,p),P=n.simpleMap(I,p),R=D.concat(P),F=i.background;O.length&&I.length&&(F=n.coerce(t,e,o,\\\"plot_bgcolor\\\"));var B,N,j,V,U=i.combine(F,e.paper_bgcolor);function H(t,e){return n.coerce(j,V,s,t,e)}function q(t,e){return n.coerce2(j,V,s,t,e)}function G(t){return\\\"x\\\"===t?I:O}var Y={x:G(\\\"x\\\"),y:G(\\\"y\\\")},W=Y.x.concat(Y.y);function X(e,r){for(var n=\\\"x\\\"===e?D:P,i=[],a=0;a<n.length;a++){var o=n[a];o===r||(t[o]||{}).overlaying||i.push(d(o))}return i}for(h=0;h<R.length;h++){N=(B=R[h]).charAt(0),n.isPlainObject(t[B])||(t[B]={}),j=t[B],V=a.newContainer(e,B,N+\\\"axis\\\");var Z=x[B]||[];V._traceIndices=Z.map(function(t){return t._expandedIndex}),V._annIndices=[],V._shapeIndices=[],V._imgIndices=[],V._subplotsWith=[],V._counterAxes=[],V._name=V._attr=B;var $=V._id=d(B),J=X(N,B),K=\\\"x\\\"===N&&!w[B]&&b[B]||\\\"y\\\"===N&&!k[B]&&_[B],Q=\\\"y\\\"===N&&!T[B]&&A[B],tt={letter:N,font:e.font,outerTicks:M[B],showGrid:!S[B],data:Z,bgColor:U,calendar:e.calendar,automargin:!0,visibleDflt:K,reverseDflt:Q,splomStash:((e._splomAxes||{})[N]||{})[$]};H(\\\"uirevision\\\",e.uirevision),l(j,V,H,tt),c(j,V,H,tt,e);var et=q(\\\"spikecolor\\\"),rt=q(\\\"spikethickness\\\"),nt=q(\\\"spikedash\\\"),it=q(\\\"spikemode\\\"),at=q(\\\"spikesnap\\\");H(\\\"showspikes\\\",!!(et||rt||nt||it||at))||(delete V.spikecolor,delete V.spikethickness,delete V.spikedash,delete V.spikemode,delete V.spikesnap),f(j,V,H,{letter:N,counterAxes:Y[N],overlayableAxes:J,grid:e.grid}),V._input=j}var ot=m(\\\"rangeslider\\\",\\\"handleDefaults\\\"),st=m(\\\"rangeselector\\\",\\\"handleDefaults\\\");for(h=0;h<D.length;h++)B=D[h],j=t[B],V=e[B],ot(t,e,B),\\\"date\\\"===V.type&&st(j,V,e,P,V.calendar),H(\\\"fixedrange\\\");for(h=0;h<P.length;h++){B=P[h],j=t[B],V=e[B];var lt=e[p(V.anchor)];H(\\\"fixedrange\\\",m(\\\"rangeslider\\\",\\\"isVisible\\\")(lt))}var ct=e._axisConstraintGroups=[],ut=e._axisMatchGroups=[];for(h=0;h<R.length;h++)N=(B=R[h]).charAt(0),j=t[B],V=e[B],u(j,V,H,W,e);for(h=0;h<ut.length;h++){var ft,ht=ut[h],pt=null,dt=null;for(ft in ht)(V=e[p(ft)]).matches||(pt=V.range,dt=V.autorange);if(null===pt||null===dt)for(ft in ht){pt=(V=e[p(ft)]).range,dt=V.autorange;break}for(ft in ht)(V=e[p(ft)]).matches&&(V.range=pt.slice(),V.autorange=dt),V._matchGroup=ht;if(ct.length)for(ft in ht)for(g=0;g<ct.length;g++){var gt=ct[g];for(var vt in gt)ft===vt&&(n.warn(\\\"Axis \\\"+vt+\\\" is set with both a *scaleanchor* and *matches* constraint; ignoring the scale constraint.\\\"),delete gt[vt],Object.keys(gt).length<2&&ct.splice(g,1))}}}},{\\\"../../components/color\\\":580,\\\"../../lib\\\":703,\\\"../../plot_api/plot_template\\\":741,\\\"../../registry\\\":831,\\\"../layout_attributes\\\":803,\\\"./axis_defaults\\\":753,\\\"./axis_ids\\\":754,\\\"./constraints\\\":758,\\\"./layout_attributes\\\":763,\\\"./position_defaults\\\":766,\\\"./type_defaults\\\":774}],765:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"tinycolor2\\\").mix,i=t(\\\"../../components/color/attributes\\\").lightFraction,a=t(\\\"../../lib\\\");e.exports=function(t,e,r,o){var s=(o=o||{}).dfltColor;function l(r,n){return a.coerce2(t,e,o.attributes,r,n)}var c=l(\\\"linecolor\\\",s),u=l(\\\"linewidth\\\");r(\\\"showline\\\",o.showLine||!!c||!!u)||(delete e.linecolor,delete e.linewidth);var f=l(\\\"gridcolor\\\",n(s,o.bgColor,o.blend||i).toRgbString()),h=l(\\\"gridwidth\\\");if(r(\\\"showgrid\\\",o.showGrid||!!f||!!h)||(delete e.gridcolor,delete e.gridwidth),!o.noZeroLine){var p=l(\\\"zerolinecolor\\\",s),d=l(\\\"zerolinewidth\\\");r(\\\"zeroline\\\",o.showGrid||!!p||!!d)||(delete e.zerolinecolor,delete e.zerolinewidth)}}},{\\\"../../components/color/attributes\\\":579,\\\"../../lib\\\":703,tinycolor2:524}],766:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../lib\\\");e.exports=function(t,e,r,a){var o,s,l,c,u=a.counterAxes||[],f=a.overlayableAxes||[],h=a.letter,p=a.grid;p&&(s=p._domains[h][p._axisMap[e._id]],o=p._anchors[e._id],s&&(l=p[h+\\\"side\\\"].split(\\\" \\\")[0],c=p.domain[h][\\\"right\\\"===l||\\\"top\\\"===l?1:0])),s=s||[0,1],o=o||(n(t.position)?\\\"free\\\":u[0]||\\\"free\\\"),l=l||(\\\"x\\\"===h?\\\"bottom\\\":\\\"left\\\"),c=c||0,\\\"free\\\"===i.coerce(t,e,{anchor:{valType:\\\"enumerated\\\",values:[\\\"free\\\"].concat(u),dflt:o}},\\\"anchor\\\")&&r(\\\"position\\\",c),i.coerce(t,e,{side:{valType:\\\"enumerated\\\",values:\\\"x\\\"===h?[\\\"bottom\\\",\\\"top\\\"]:[\\\"left\\\",\\\"right\\\"],dflt:l}},\\\"side\\\");var d=!1;if(f.length&&(d=i.coerce(t,e,{overlaying:{valType:\\\"enumerated\\\",values:[!1].concat(f),dflt:!1}},\\\"overlaying\\\")),!d){var g=r(\\\"domain\\\",s);g[0]>g[1]-1/4096&&(e.domain=s),i.noneOrAll(t.domain,e.domain,s)}return r(\\\"layer\\\"),e}},{\\\"../../lib\\\":703,\\\"fast-isnumeric\\\":224}],767:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../constants/alignment\\\").FROM_BL;e.exports=function(t,e,r){void 0===r&&(r=n[t.constraintoward||\\\"center\\\"]);var i=[t.r2l(t.range[0]),t.r2l(t.range[1])],a=i[0]+(i[1]-i[0])*r;t.range=t._input.range=[t.l2r(a+(i[0]-a)*e),t.l2r(a+(i[1]-a)*e)]}},{\\\"../../constants/alignment\\\":675}],768:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"polybooljs\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"../../components/color\\\"),o=t(\\\"../../components/fx\\\"),s=t(\\\"../../lib\\\"),l=t(\\\"../../lib/polygon\\\"),c=t(\\\"../../lib/throttle\\\"),u=t(\\\"../../components/fx/helpers\\\").makeEventData,f=t(\\\"./axis_ids\\\").getFromId,h=t(\\\"../../lib/clear_gl_canvases\\\"),p=t(\\\"../../plot_api/subroutines\\\").redrawReglTraces,d=t(\\\"./constants\\\"),g=d.MINSELECT,v=l.filter,m=l.tester;function y(t){return t._id}function x(t,e,r,n,i,a,o){var s,l,c,u,f,h,p,d,g,v=e._hoverdata,m=e._fullLayout.clickmode.indexOf(\\\"event\\\")>-1,y=[];if(function(t){return t&&Array.isArray(t)&&!0!==t[0].hoverOnBox}(v)){k(t,e,a);var x=function(t,e){var r,n,i=t[0],a=-1,o=[];for(n=0;n<e.length;n++)if(r=e[n],i.fullData._expandedIndex===r.cd[0].trace._expandedIndex){if(!0===i.hoverOnBox)break;void 0!==i.pointNumber?a=i.pointNumber:void 0!==i.binNumber&&(a=i.binNumber,o=i.pointNumbers);break}return{pointNumber:a,pointNumbers:o,searchInfo:r}}(v,s=A(e,r,n,i));if(x.pointNumbers.length>0?function(t,e){var r,n,i,a=[];for(i=0;i<t.length;i++)(r=t[i]).cd[0].trace.selectedpoints&&r.cd[0].trace.selectedpoints.length>0&&a.push(r);if(1===a.length&&a[0]===e.searchInfo&&(n=e.searchInfo.cd[0].trace).selectedpoints.length===e.pointNumbers.length){for(i=0;i<e.pointNumbers.length;i++)if(n.selectedpoints.indexOf(e.pointNumbers[i])<0)return!1;return!0}return!1}(s,x):function(t){var e,r,n,i=0;for(n=0;n<t.length;n++)if(e=t[n],(r=e.cd[0].trace).selectedpoints){if(r.selectedpoints.length>1)return!1;if((i+=r.selectedpoints.length)>1)return!1}return 1===i}(s)&&(h=S(x))){for(o&&o.remove(),g=0;g<s.length;g++)(l=s[g])._module.selectPoints(l,!1);E(e,s),T(a),m&&e.emit(\\\"plotly_deselect\\\",null)}else{for(p=t.shiftKey&&(void 0!==h?h:S(x)),c=function(t,e,r){return{pointNumber:t,searchInfo:e,subtract:r}}(x.pointNumber,x.searchInfo,p),u=w(a.selectionDefs.concat([c])),g=0;g<s.length;g++)if(f=C(s[g]._module.selectPoints(s[g],u),s[g]),y.length)for(var b=0;b<f.length;b++)y.push(f[b]);else y=f;E(e,s,d={points:y}),c&&a&&a.selectionDefs.push(c),o&&M(a.mergedPolygons,o),m&&e.emit(\\\"plotly_selected\\\",d)}}}function b(t){return\\\"pointNumber\\\"in t&&\\\"searchInfo\\\"in t}function _(t){return{xmin:0,xmax:0,ymin:0,ymax:0,pts:[],contains:function(e,r,n,i){var a=t.searchInfo.cd[0].trace._expandedIndex;return i.cd[0].trace._expandedIndex===a&&n===t.pointNumber},isRect:!1,degenerate:!1,subtract:t.subtract}}function w(t){for(var e=[],r=b(t[0])?0:t[0][0][0],n=r,i=b(t[0])?0:t[0][0][1],a=i,o=0;o<t.length;o++)if(b(t[o]))e.push(_(t[o]));else{var s=l.tester(t[o]);s.subtract=t[o].subtract,e.push(s),r=Math.min(r,s.xmin),n=Math.max(n,s.xmax),i=Math.min(i,s.ymin),a=Math.max(a,s.ymax)}return{xmin:r,xmax:n,ymin:i,ymax:a,pts:[],contains:function(t,r,n,i){for(var a=!1,o=0;o<e.length;o++)e[o].contains(t,r,n,i)&&(a=!1===e[o].subtract);return a},isRect:!1,degenerate:!1}}function k(t,e,r){var n=e._fullLayout,i=r.plotinfo,a=n._lastSelectedSubplot&&n._lastSelectedSubplot===i.id,o=t.shiftKey||t.altKey;a&&o&&i.selection&&i.selection.selectionDefs&&!r.selectionDefs?(r.selectionDefs=i.selection.selectionDefs,r.mergedPolygons=i.selection.mergedPolygons):o&&i.selection||T(r),a||(L(e),n._lastSelectedSubplot=i.id)}function T(t){var e=t.plotinfo;e.selection={},e.selection.selectionDefs=t.selectionDefs=[],e.selection.mergedPolygons=t.mergedPolygons=[]}function A(t,e,r,n){var i,a,o,s=[],l=e.map(y),c=r.map(y);for(o=0;o<t.calcdata.length;o++)if(!0===(a=(i=t.calcdata[o])[0].trace).visible&&a._module&&a._module.selectPoints)if(!n||a.subplot!==n&&a.geo!==n)if(\\\"splom\\\"===a.type&&a._xaxes[l[0]]&&a._yaxes[c[0]]){var u=p(a._module,i,e[0],r[0]);u.scene=t._fullLayout._splomScenes[a.uid],s.push(u)}else if(\\\"sankey\\\"===a.type){var h=p(a._module,i,e[0],r[0]);s.push(h)}else{if(-1===l.indexOf(a.xaxis))continue;if(-1===c.indexOf(a.yaxis))continue;s.push(p(a._module,i,f(t,a.xaxis),f(t,a.yaxis)))}else s.push(p(a._module,i,e[0],r[0]));return s;function p(t,e,r,n){return{_module:t,cd:e,xaxis:r,yaxis:n}}}function M(t,e){var r,n,i=[];for(r=0;r<t.length;r++){var a=t[r];i.push(a.join(\\\"L\\\")+\\\"L\\\"+a[0])}n=t.length>0?\\\"M\\\"+i.join(\\\"M\\\")+\\\"Z\\\":\\\"M0,0Z\\\",e.attr(\\\"d\\\",n)}function S(t){var e=t.searchInfo.cd[0].trace,r=t.pointNumber,n=t.pointNumbers,i=n.length>0?n[0]:r;return!!e.selectedpoints&&e.selectedpoints.indexOf(i)>-1}function E(t,e,r){var n,a,o,s;for(n=0;n<e.length;n++){var l=e[n].cd[0].trace._fullInput,c=t._fullLayout._tracePreGUI[l.uid]||{};void 0===c.selectedpoints&&(c.selectedpoints=l._input.selectedpoints||null)}if(r){var u=r.points||[];for(n=0;n<e.length;n++)(s=e[n].cd[0].trace)._input.selectedpoints=s._fullInput.selectedpoints=[],s._fullInput!==s&&(s.selectedpoints=[]);for(n=0;n<u.length;n++){var f=u[n],d=f.data,g=f.fullData;f.pointIndices?([].push.apply(d.selectedpoints,f.pointIndices),s._fullInput!==s&&[].push.apply(g.selectedpoints,f.pointIndices)):(d.selectedpoints.push(f.pointIndex),s._fullInput!==s&&g.selectedpoints.push(f.pointIndex))}}else for(n=0;n<e.length;n++)delete(s=e[n].cd[0].trace).selectedpoints,delete s._input.selectedpoints,s._fullInput!==s&&delete s._fullInput.selectedpoints;var v=!1;for(n=0;n<e.length;n++){s=(o=(a=e[n]).cd)[0].trace,i.traceIs(s,\\\"regl\\\")&&(v=!0);var m=a._module,y=m.styleOnSelect||m.style;y&&y(t,o)}v&&(h(t),p(t))}function C(t,e){if(Array.isArray(t))for(var r=e.cd,n=e.cd[0].trace,i=0;i<t.length;i++)t[i]=u(t[i],n,r);return t}function L(t){var e=(t._fullLayout||{})._zoomlayer;e&&e.selectAll(\\\".select-outline\\\").remove()}e.exports={prepSelect:function(t,e,r,i,l){var u,f,h,p,y,b,_,S=i.gd,L=S._fullLayout,z=L._zoomlayer,O=i.element.getBoundingClientRect(),I=i.plotinfo,D=I.xaxis._offset,P=I.yaxis._offset,R=e-O.left,F=r-O.top,B=R,N=F,j=\\\"M\\\"+R+\\\",\\\"+F,V=i.xaxes[0]._length,U=i.yaxes[0]._length,H=i.xaxes.concat(i.yaxes),q=t.altKey;k(t,S,i),\\\"lasso\\\"===l&&(u=v([[R,F]],d.BENDPX));var G=z.selectAll(\\\"path.select-outline-\\\"+I.id).data([1,2]);G.enter().append(\\\"path\\\").attr(\\\"class\\\",function(t){return\\\"select-outline select-outline-\\\"+t+\\\" select-outline-\\\"+I.id}).attr(\\\"transform\\\",\\\"translate(\\\"+D+\\\", \\\"+P+\\\")\\\").attr(\\\"d\\\",j+\\\"Z\\\");var Y,W=z.append(\\\"path\\\").attr(\\\"class\\\",\\\"zoombox-corners\\\").style({fill:a.background,stroke:a.defaultLine,\\\"stroke-width\\\":1}).attr(\\\"transform\\\",\\\"translate(\\\"+D+\\\", \\\"+P+\\\")\\\").attr(\\\"d\\\",\\\"M0,0Z\\\"),X=L._uid+d.SELECTID,Z=[],$=A(S,i.xaxes,i.yaxes,i.subplot);function J(t,e){return\\\"log\\\"===t.type?t.p2d(e):t.p2r(e)}function K(t){var e=\\\"y\\\"===t._id.charAt(0)?1:0;return function(r){return J(t,r[e])}}function Q(t,e){return t-e}Y=I.fillRangeItems?I.fillRangeItems:\\\"select\\\"===l?function(t,e){var r=t.range={};for(y=0;y<H.length;y++){var n=H[y],i=n._id.charAt(0);r[n._id]=[J(n,e[i+\\\"min\\\"]),J(n,e[i+\\\"max\\\"])].sort(Q)}}:function(t,e,r){var n=t.lassoPoints={};for(y=0;y<H.length;y++){var i=H[y];n[i._id]=r.filtered.map(K(i))}},i.moveFn=function(t,e){B=Math.max(0,Math.min(V,t+R)),N=Math.max(0,Math.min(U,e+F));var r=Math.abs(B-R),a=Math.abs(N-F);if(\\\"select\\\"===l){var o=L.selectdirection;\\\"h\\\"===(o=\\\"any\\\"===L.selectdirection?a<Math.min(.6*r,g)?\\\"h\\\":r<Math.min(.6*a,g)?\\\"v\\\":\\\"d\\\":L.selectdirection)?((p=[[R,0],[R,U],[B,U],[B,0]]).xmin=Math.min(R,B),p.xmax=Math.max(R,B),p.ymin=Math.min(0,U),p.ymax=Math.max(0,U),W.attr(\\\"d\\\",\\\"M\\\"+p.xmin+\\\",\\\"+(F-g)+\\\"h-4v\\\"+2*g+\\\"h4ZM\\\"+(p.xmax-1)+\\\",\\\"+(F-g)+\\\"h4v\\\"+2*g+\\\"h-4Z\\\")):\\\"v\\\"===o?((p=[[0,F],[0,N],[V,N],[V,F]]).xmin=Math.min(0,V),p.xmax=Math.max(0,V),p.ymin=Math.min(F,N),p.ymax=Math.max(F,N),W.attr(\\\"d\\\",\\\"M\\\"+(R-g)+\\\",\\\"+p.ymin+\\\"v-4h\\\"+2*g+\\\"v4ZM\\\"+(R-g)+\\\",\\\"+(p.ymax-1)+\\\"v4h\\\"+2*g+\\\"v-4Z\\\")):\\\"d\\\"===o&&((p=[[R,F],[R,N],[B,N],[B,F]]).xmin=Math.min(R,B),p.xmax=Math.max(R,B),p.ymin=Math.min(F,N),p.ymax=Math.max(F,N),W.attr(\\\"d\\\",\\\"M0,0Z\\\"))}else\\\"lasso\\\"===l&&(u.addPt([B,N]),p=u.filtered);i.selectionDefs&&i.selectionDefs.length?(h=function(t,e,r){return r?n.difference({regions:t,inverted:!1},{regions:[e],inverted:!1}).regions:n.union({regions:t,inverted:!1},{regions:[e],inverted:!1}).regions}(i.mergedPolygons,p,q),p.subtract=q,f=w(i.selectionDefs.concat([p]))):(h=[p],f=m(p)),M(h,G),c.throttle(X,d.SELECTDELAY,function(){var t;Z=[];var e,r=[];for(y=0;y<$.length;y++)if(e=(b=$[y])._module.selectPoints(b,f),r.push(e),t=C(e,b),Z.length)for(var n=0;n<t.length;n++)Z.push(t[n]);else Z=t;E(S,$,_={points:Z}),Y(_,p,u),i.gd.emit(\\\"plotly_selecting\\\",_)})},i.clickFn=function(t,e){var r=L.clickmode;W.remove(),c.done(X).then(function(){if(c.clear(X),2===t){for(G.remove(),y=0;y<$.length;y++)(b=$[y])._module.selectPoints(b,!1);E(S,$),T(i),S.emit(\\\"plotly_deselect\\\",null)}else r.indexOf(\\\"select\\\")>-1&&x(e,S,i.xaxes,i.yaxes,i.subplot,i,G),\\\"event\\\"===r&&S.emit(\\\"plotly_selected\\\",void 0);o.click(S,e)}).catch(s.error)},i.doneFn=function(){W.remove(),c.done(X).then(function(){c.clear(X),i.gd.emit(\\\"plotly_selected\\\",_),p&&i.selectionDefs&&(p.subtract=q,i.selectionDefs.push(p),i.mergedPolygons.length=0,[].push.apply(i.mergedPolygons,h)),i.doneFnCompleted&&i.doneFnCompleted(Z)}).catch(s.error)}},clearSelect:L,selectOnClick:x}},{\\\"../../components/color\\\":580,\\\"../../components/fx\\\":619,\\\"../../components/fx/helpers\\\":615,\\\"../../lib\\\":703,\\\"../../lib/clear_gl_canvases\\\":688,\\\"../../lib/polygon\\\":715,\\\"../../lib/throttle\\\":728,\\\"../../plot_api/subroutines\\\":742,\\\"../../registry\\\":831,\\\"./axis_ids\\\":754,\\\"./constants\\\":757,polybooljs:468}],769:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"fast-isnumeric\\\"),a=t(\\\"../../lib\\\"),o=a.cleanNumber,s=a.ms2DateTime,l=a.dateTime2ms,c=a.ensureNumber,u=a.isArrayOrTypedArray,f=t(\\\"../../constants/numerical\\\"),h=f.FP_SAFE,p=f.BADNUM,d=f.LOG_CLIP,g=t(\\\"./constants\\\"),v=t(\\\"./axis_ids\\\");function m(t){return Math.pow(10,t)}function y(t){return null!=t}e.exports=function(t,e){e=e||{};var r=t._id||\\\"x\\\",f=r.charAt(0);function x(e,r){if(e>0)return Math.log(e)/Math.LN10;if(e<=0&&r&&t.range&&2===t.range.length){var n=t.range[0],i=t.range[1];return.5*(n+i-2*d*Math.abs(n-i))}return p}function b(e,r,n){var o=l(e,n||t.calendar);if(o===p){if(!i(e))return p;e=+e;var s=Math.floor(10*a.mod(e+.05,1)),c=Math.round(e-s/10);o=l(new Date(c))+s/10}return o}function _(e,r,n){return s(e,r,n||t.calendar)}function w(e){return t._categories[Math.round(e)]}function k(e){if(y(e)){if(void 0===t._categoriesMap&&(t._categoriesMap={}),void 0!==t._categoriesMap[e])return t._categoriesMap[e];t._categories.push(\\\"number\\\"==typeof e?String(e):e);var r=t._categories.length-1;return t._categoriesMap[e]=r,r}return p}function T(e){if(t._categoriesMap)return t._categoriesMap[e]}function A(t){var e=T(t);return void 0!==e?e:i(t)?+t:void 0}function M(e){return i(e)?n.round(t._b+t._m*e,2):p}function S(e){return(e-t._b)/t._m}t.c2l=\\\"log\\\"===t.type?x:c,t.l2c=\\\"log\\\"===t.type?m:c,t.l2p=M,t.p2l=S,t.c2p=\\\"log\\\"===t.type?function(t,e){return M(x(t,e))}:M,t.p2c=\\\"log\\\"===t.type?function(t){return m(S(t))}:S,-1!==[\\\"linear\\\",\\\"-\\\"].indexOf(t.type)?(t.d2r=t.r2d=t.d2c=t.r2c=t.d2l=t.r2l=o,t.c2d=t.c2r=t.l2d=t.l2r=c,t.d2p=t.r2p=function(e){return t.l2p(o(e))},t.p2d=t.p2r=S,t.cleanPos=c):\\\"log\\\"===t.type?(t.d2r=t.d2l=function(t,e){return x(o(t),e)},t.r2d=t.r2c=function(t){return m(o(t))},t.d2c=t.r2l=o,t.c2d=t.l2r=c,t.c2r=x,t.l2d=m,t.d2p=function(e,r){return t.l2p(t.d2r(e,r))},t.p2d=function(t){return m(S(t))},t.r2p=function(e){return t.l2p(o(e))},t.p2r=S,t.cleanPos=c):\\\"date\\\"===t.type?(t.d2r=t.r2d=a.identity,t.d2c=t.r2c=t.d2l=t.r2l=b,t.c2d=t.c2r=t.l2d=t.l2r=_,t.d2p=t.r2p=function(e,r,n){return t.l2p(b(e,0,n))},t.p2d=t.p2r=function(t,e,r){return _(S(t),e,r)},t.cleanPos=function(e){return a.cleanDate(e,p,t.calendar)}):\\\"category\\\"===t.type?(t.d2c=t.d2l=k,t.r2d=t.c2d=t.l2d=w,t.d2r=t.d2l_noadd=A,t.r2c=function(e){var r=A(e);return void 0!==r?r:t.fraction2r(.5)},t.l2r=t.c2r=c,t.r2l=A,t.d2p=function(e){return t.l2p(t.r2c(e))},t.p2d=function(t){return w(S(t))},t.r2p=t.d2p,t.p2r=S,t.cleanPos=function(t){return\\\"string\\\"==typeof t&&\\\"\\\"!==t?t:c(t)}):\\\"multicategory\\\"===t.type&&(t.r2d=t.c2d=t.l2d=w,t.d2r=t.d2l_noadd=A,t.r2c=function(e){var r=A(e);return void 0!==r?r:t.fraction2r(.5)},t.r2c_just_indices=T,t.l2r=t.c2r=c,t.r2l=A,t.d2p=function(e){return t.l2p(t.r2c(e))},t.p2d=function(t){return w(S(t))},t.r2p=t.d2p,t.p2r=S,t.cleanPos=function(t){return Array.isArray(t)||\\\"string\\\"==typeof t&&\\\"\\\"!==t?t:c(t)},t.setupMultiCategory=function(n){var i,o,s=t._traceIndices,l=e._axisMatchGroups;if(l&&l.length&&0===t._categories.length)for(i=0;i<l.length;i++){var c=l[i];if(c[r])for(var h in c)if(h!==r){var p=e[v.id2name(h)];s=s.concat(p._traceIndices)}}var d=[[0,{}],[0,{}]],g=[];for(i=0;i<s.length;i++){var m=n[s[i]];if(f in m){var x=m[f],b=m._length||a.minRowLength(x);if(u(x[0])&&u(x[1]))for(o=0;o<b;o++){var _=x[0][o],w=x[1][o];y(_)&&y(w)&&(g.push([_,w]),_ in d[0][1]||(d[0][1][_]=d[0][0]++),w in d[1][1]||(d[1][1][w]=d[1][0]++))}}}for(g.sort(function(t,e){var r=d[0][1],n=r[t[0]]-r[e[0]];if(n)return n;var i=d[1][1];return i[t[1]]-i[e[1]]}),i=0;i<g.length;i++)k(g[i])}),t.fraction2r=function(e){var r=t.r2l(t.range[0]),n=t.r2l(t.range[1]);return t.l2r(r+e*(n-r))},t.r2fraction=function(e){var r=t.r2l(t.range[0]),n=t.r2l(t.range[1]);return(t.r2l(e)-r)/(n-r)},t.cleanRange=function(e,r){r||(r={}),e||(e=\\\"range\\\");var n,o,s=a.nestedProperty(t,e).get();if(o=(o=\\\"date\\\"===t.type?a.dfltRange(t.calendar):\\\"y\\\"===f?g.DFLTRANGEY:r.dfltRange||g.DFLTRANGEX).slice(),s&&2===s.length)for(\\\"date\\\"!==t.type||t.autorange||(s[0]=a.cleanDate(s[0],p,t.calendar),s[1]=a.cleanDate(s[1],p,t.calendar)),n=0;n<2;n++)if(\\\"date\\\"===t.type){if(!a.isDateTime(s[n],t.calendar)){t[e]=o;break}if(t.r2l(s[0])===t.r2l(s[1])){var l=a.constrain(t.r2l(s[0]),a.MIN_MS+1e3,a.MAX_MS-1e3);s[0]=t.l2r(l-1e3),s[1]=t.l2r(l+1e3);break}}else{if(!i(s[n])){if(!i(s[1-n])){t[e]=o;break}s[n]=s[1-n]*(n?10:.1)}if(s[n]<-h?s[n]=-h:s[n]>h&&(s[n]=h),s[0]===s[1]){var c=Math.max(1,Math.abs(1e-6*s[0]));s[0]-=c,s[1]+=c}}else a.nestedProperty(t,e).set(o)},t.setScale=function(r){var n=e._size;if(t.overlaying){var i=v.getFromId({_fullLayout:e},t.overlaying);t.domain=i.domain}var a=r&&t._r?\\\"_r\\\":\\\"range\\\",o=t.calendar;t.cleanRange(a);var s=t.r2l(t[a][0],o),l=t.r2l(t[a][1],o);if(\\\"y\\\"===f?(t._offset=n.t+(1-t.domain[1])*n.h,t._length=n.h*(t.domain[1]-t.domain[0]),t._m=t._length/(s-l),t._b=-t._m*l):(t._offset=n.l+t.domain[0]*n.w,t._length=n.w*(t.domain[1]-t.domain[0]),t._m=t._length/(l-s),t._b=-t._m*s),!isFinite(t._m)||!isFinite(t._b)||t._length<0)throw e._replotting=!1,new Error(\\\"Something went wrong with axis scaling\\\")},t.makeCalcdata=function(e,r){var n,i,o,s,l=t.type,c=\\\"date\\\"===l&&e[r+\\\"calendar\\\"];if(r in e){if(n=e[r],s=e._length||a.minRowLength(n),a.isTypedArray(n)&&(\\\"linear\\\"===l||\\\"log\\\"===l)){if(s===n.length)return n;if(n.subarray)return n.subarray(0,s)}if(\\\"multicategory\\\"===l)return function(t,e){for(var r=new Array(e),n=0;n<e;n++){var i=(t[0]||[])[n],a=(t[1]||[])[n];r[n]=T([i,a])}return r}(n,s);for(i=new Array(s),o=0;o<s;o++)i[o]=t.d2c(n[o],0,c)}else{var u=r+\\\"0\\\"in e?t.d2c(e[r+\\\"0\\\"],0,c):0,f=e[\\\"d\\\"+r]?Number(e[\\\"d\\\"+r]):1;for(n=e[{x:\\\"y\\\",y:\\\"x\\\"}[r]],s=e._length||n.length,i=new Array(s),o=0;o<s;o++)i[o]=u+o*f}return i},t.isValidRange=function(e){return Array.isArray(e)&&2===e.length&&i(t.r2l(e[0]))&&i(t.r2l(e[1]))},t.isPtWithinRange=function(e,r){var n=t.c2l(e[f],null,r),i=t.r2l(t.range[0]),a=t.r2l(t.range[1]);return i<a?i<=n&&n<=a:a<=n&&n<=i},t.clearCalc=function(){var n=function(){t._categories=[],t._categoriesMap={}},i=e._axisMatchGroups;if(i&&i.length){for(var a=!1,o=0;o<i.length;o++){var s=i[o];if(s[r]){a=!0;var l=null,c=null;for(var u in s){var f=e[v.id2name(u)];if(f._categories){l=f._categories,c=f._categoriesMap;break}}l&&c?(t._categories=l,t._categoriesMap=c):n();break}}a||n()}else n();if(t._initialCategories)for(var h=0;h<t._initialCategories.length;h++)k(t._initialCategories[h])},t.sortByInitialCategories=function(){var n=[];if(t._categories=[],t._categoriesMap={},t._initialCategories)for(var i=0;i<t._initialCategories.length;i++)k(t._initialCategories[i]);n=n.concat(t._traceIndices);var a=t._matchGroup;for(var o in a)if(r!==o){var s=e[v.id2name(o)];s._categories=t._categories,s._categoriesMap=t._categoriesMap,n=n.concat(s._traceIndices)}return n};var E=e._d3locale;\\\"date\\\"===t.type&&(t._dateFormat=E?E.timeFormat.utc:n.time.format.utc,t._extraFormat=e._extraFormat),t._separators=e.separators,t._numFormat=E?E.numberFormat:n.format,delete t._minDtick,delete t._forceTick0}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"./axis_ids\\\":754,\\\"./constants\\\":757,d3:157,\\\"fast-isnumeric\\\":224}],770:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./layout_attributes\\\"),a=t(\\\"../array_container_defaults\\\");function o(t){var e=[\\\"showexponent\\\",\\\"showtickprefix\\\",\\\"showticksuffix\\\"].filter(function(e){return void 0!==t[e]});if(e.every(function(r){return t[r]===t[e[0]]})||1===e.length)return t[e[0]]}function s(t,e){function r(r,a){return n.coerce(t,e,i.tickformatstops,r,a)}r(\\\"enabled\\\")&&(r(\\\"dtickrange\\\"),r(\\\"value\\\"))}e.exports=function(t,e,r,l,c,u){u&&1!==u.pass||function(t,e,r,n,i){var a=o(t);r(\\\"tickprefix\\\")&&r(\\\"showtickprefix\\\",a);r(\\\"ticksuffix\\\",i.tickSuffixDflt)&&r(\\\"showticksuffix\\\",a)}(t,0,r,0,c),u&&2!==u.pass||function(t,e,r,l,c){var u=o(t);r(\\\"tickprefix\\\")&&r(\\\"showtickprefix\\\",u);r(\\\"ticksuffix\\\",c.tickSuffixDflt)&&r(\\\"showticksuffix\\\",u);if(r(\\\"showticklabels\\\")){var f=c.font||{},h=e.color,p=h&&h!==i.color.dflt?h:f.color;if(n.coerceFont(r,\\\"tickfont\\\",{family:f.family,size:f.size,color:p}),r(\\\"tickangle\\\"),\\\"category\\\"!==l){var d=r(\\\"tickformat\\\"),g=t.tickformatstops;Array.isArray(g)&&g.length&&a(t,e,{name:\\\"tickformatstops\\\",inclusionAttr:\\\"enabled\\\",handleItemDefaults:s}),d||\\\"date\\\"===l||(r(\\\"showexponent\\\",u),r(\\\"exponentformat\\\"),r(\\\"separatethousands\\\"))}}}(t,e,r,l,c)}},{\\\"../../lib\\\":703,\\\"../array_container_defaults\\\":747,\\\"./layout_attributes\\\":763}],771:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./layout_attributes\\\");e.exports=function(t,e,r,a){var o=n.coerce2(t,e,i,\\\"ticklen\\\"),s=n.coerce2(t,e,i,\\\"tickwidth\\\"),l=n.coerce2(t,e,i,\\\"tickcolor\\\",e.color);r(\\\"ticks\\\",a.outerTicks||o||s||l?\\\"outside\\\":\\\"\\\")||(delete e.ticklen,delete e.tickwidth,delete e.tickcolor)}},{\\\"../../lib\\\":703,\\\"./layout_attributes\\\":763}],772:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./clean_ticks\\\");e.exports=function(t,e,r,i){var a;\\\"array\\\"!==t.tickmode||\\\"log\\\"!==i&&\\\"date\\\"!==i?a=r(\\\"tickmode\\\",Array.isArray(t.tickvals)?\\\"array\\\":t.dtick?\\\"linear\\\":\\\"auto\\\"):a=e.tickmode=\\\"auto\\\";if(\\\"auto\\\"===a)r(\\\"nticks\\\");else if(\\\"linear\\\"===a){var o=e.dtick=n.dtick(t.dtick,i);e.tick0=n.tick0(t.tick0,i,e.calendar,o)}else if(\\\"multicategory\\\"!==i){void 0===r(\\\"tickvals\\\")?e.tickmode=\\\"auto\\\":r(\\\"ticktext\\\")}}},{\\\"./clean_ticks\\\":756}],773:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"../../components/drawing\\\"),o=t(\\\"./axes\\\");e.exports=function(t,e,r,s){var l=t._fullLayout;if(0!==e.length){var c,u,f,h;s&&(c=s());var p=n.ease(r.easing);return t._transitionData._interruptCallbacks.push(function(){return window.cancelAnimationFrame(h),h=null,function(){for(var r={},n=0;n<e.length;n++){var a=e[n];a.xr0&&(r[a.plotinfo.xaxis._name+\\\".range\\\"]=a.xr0.slice()),a.yr0&&(r[a.plotinfo.yaxis._name+\\\".range\\\"]=a.yr0.slice())}return i.call(\\\"relayout\\\",t,r).then(function(){for(var t=0;t<e.length;t++)d(e[t].plotinfo)})}()}),u=Date.now(),h=window.requestAnimationFrame(function n(){f=Date.now();for(var a=Math.min(1,(f-u)/r.duration),o=p(a),s=0;s<e.length;s++)g(e[s],o);f-u>r.duration?(function(){for(var r={},n=0;n<e.length;n++){var a=e[n];a.xr1&&(r[a.plotinfo.xaxis._name+\\\".range\\\"]=a.xr1.slice()),a.yr1&&(r[a.plotinfo.yaxis._name+\\\".range\\\"]=a.yr1.slice())}c&&c(),i.call(\\\"relayout\\\",t,r).then(function(){for(var t=0;t<e.length;t++)d(e[t].plotinfo)})}(),h=window.cancelAnimationFrame(n)):h=window.requestAnimationFrame(n)}),Promise.resolve()}function d(t){var e=t.xaxis,r=t.yaxis;l._defs.select(\\\"#\\\"+t.clipId+\\\"> rect\\\").call(a.setTranslate,0,0).call(a.setScale,1,1),t.plot.call(a.setTranslate,e._offset,r._offset).call(a.setScale,1,1);var n=t.plot.selectAll(\\\".scatterlayer .trace\\\");n.selectAll(\\\".point\\\").call(a.setPointGroupScale,1,1),n.selectAll(\\\".textpoint\\\").call(a.setTextPointsScale,1,1),n.call(a.hideOutsideRangePoints,t)}function g(e,r){var n=e.plotinfo,i=n.xaxis,s=n.yaxis,l=e.xr0,c=e.xr1,u=i._length,f=e.yr0,h=e.yr1,p=s._length,d=!!c,g=!!h,v=[];if(d){var m=l[1]-l[0],y=c[1]-c[0];v[0]=(l[0]*(1-r)+r*c[0]-l[0])/(l[1]-l[0])*u,v[2]=u*(1-r+r*y/m),i.range[0]=l[0]*(1-r)+r*c[0],i.range[1]=l[1]*(1-r)+r*c[1]}else v[0]=0,v[2]=u;if(g){var x=f[1]-f[0],b=h[1]-h[0];v[1]=(f[1]*(1-r)+r*h[1]-f[1])/(f[0]-f[1])*p,v[3]=p*(1-r+r*b/x),s.range[0]=f[0]*(1-r)+r*h[0],s.range[1]=f[1]*(1-r)+r*h[1]}else v[1]=0,v[3]=p;o.drawOne(t,i,{skipTitle:!0}),o.drawOne(t,s,{skipTitle:!0}),o.redrawComponents(t,[i._id,s._id]);var _=d?u/v[2]:1,w=g?p/v[3]:1,k=d?v[0]:0,T=g?v[1]:0,A=d?v[0]/v[2]*u:0,M=g?v[1]/v[3]*p:0,S=i._offset-A,E=s._offset-M;n.clipRect.call(a.setTranslate,k,T).call(a.setScale,1/_,1/w),n.plot.call(a.setTranslate,S,E).call(a.setScale,_,w),a.setPointGroupScale(n.zoomScalePts,1/_,1/w),a.setTextPointsScale(n.zoomScaleTxt,1/_,1/w)}o.redrawComponents(t)}},{\\\"../../components/drawing\\\":601,\\\"../../registry\\\":831,\\\"./axes\\\":751,d3:157}],774:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\").traceIs,i=t(\\\"./axis_autotype\\\");function a(t){return{v:\\\"x\\\",h:\\\"y\\\"}[t.orientation||\\\"v\\\"]}function o(t,e){var r=a(t),i=n(t,\\\"box-violin\\\"),o=n(t._fullInput||{},\\\"candlestick\\\");return i&&!o&&e===r&&void 0===t[r]&&void 0===t[r+\\\"0\\\"]}e.exports=function(t,e,r,s){\\\"-\\\"===r(\\\"type\\\",(s.splomStash||{}).type)&&(!function(t,e){if(\\\"-\\\"!==t.type)return;var r=t._id,s=r.charAt(0);-1!==r.indexOf(\\\"scene\\\")&&(r=s);var l=function(t,e,r){for(var n=0;n<t.length;n++){var i=t[n];if(\\\"splom\\\"===i.type&&i._length>0&&(i[\\\"_\\\"+r+\\\"axes\\\"]||{})[e])return i;if((i[r+\\\"axis\\\"]||r)===e){if(o(i,r))return i;if((i[r]||[]).length||i[r+\\\"0\\\"])return i}}}(e,r,s);if(!l)return;if(\\\"histogram\\\"===l.type&&s==={v:\\\"y\\\",h:\\\"x\\\"}[l.orientation||\\\"v\\\"])return void(t.type=\\\"linear\\\");var c,u=s+\\\"calendar\\\",f=l[u],h={noMultiCategory:!n(l,\\\"cartesian\\\")||n(l,\\\"noMultiCategory\\\")};if(o(l,s)){var p=a(l),d=[];for(c=0;c<e.length;c++){var g=e[c];n(g,\\\"box-violin\\\")&&(g[s+\\\"axis\\\"]||s)===r&&(void 0!==g[p]?d.push(g[p][0]):void 0!==g.name?d.push(g.name):d.push(\\\"text\\\"),g[u]!==f&&(f=void 0))}t.type=i(d,f,h)}else if(\\\"splom\\\"===l.type){var v=l.dimensions,m=v[l._axesDim[r]];m.visible&&(t.type=i(m.values,f,h))}else t.type=i(l[s]||[l[s+\\\"0\\\"]],f,h)}(e,s.data),\\\"-\\\"===e.type?e.type=\\\"linear\\\":t.type=e.type)}},{\\\"../../registry\\\":831,\\\"./axis_autotype\\\":752}],775:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../registry\\\"),i=t(\\\"../lib\\\");function a(t,e,r){var n,a,o,s=!1;if(\\\"data\\\"===e.type)n=t._fullData[null!==e.traces?e.traces[0]:0];else{if(\\\"layout\\\"!==e.type)return!1;n=t._fullLayout}return a=i.nestedProperty(n,e.prop).get(),(o=r[e.type]=r[e.type]||{}).hasOwnProperty(e.prop)&&o[e.prop]!==a&&(s=!0),o[e.prop]=a,{changed:s,value:a}}function o(t,e){var r=[],n=e[0],a={};if(\\\"string\\\"==typeof n)a[n]=e[1];else{if(!i.isPlainObject(n))return r;a=n}return l(a,function(t,e,n){r.push({type:\\\"layout\\\",prop:t,value:n})},\\\"\\\",0),r}function s(t,e){var r,n,a,o,s=[];if(n=e[0],a=e[1],r=e[2],o={},\\\"string\\\"==typeof n)o[n]=a;else{if(!i.isPlainObject(n))return s;o=n,void 0===r&&(r=a)}return void 0===r&&(r=null),l(o,function(e,n,i){var a;if(Array.isArray(i)){var o=Math.min(i.length,t.data.length);r&&(o=Math.min(o,r.length)),a=[];for(var l=0;l<o;l++)a[l]=r?r[l]:l}else a=r?r.slice(0):null;if(null===a)Array.isArray(i)&&(i=i[0]);else if(Array.isArray(a)){if(!Array.isArray(i)){var c=i;i=[];for(var u=0;u<a.length;u++)i[u]=c}i.length=Math.min(a.length,i.length)}s.push({type:\\\"data\\\",prop:e,traces:a,value:i})},\\\"\\\",0),s}function l(t,e,r,n){Object.keys(t).forEach(function(a){var o=t[a];if(\\\"_\\\"!==a[0]){var s=r+(n>0?\\\".\\\":\\\"\\\")+a;i.isPlainObject(o)?l(o,e,s,n+1):e(s,a,o)}})}r.manageCommandObserver=function(t,e,n,o){var s={},l=!0;e&&e._commandObserver&&(s=e._commandObserver),s.cache||(s.cache={}),s.lookupTable={};var c=r.hasSimpleAPICommandBindings(t,n,s.lookupTable);if(e&&e._commandObserver){if(c)return s;if(e._commandObserver.remove)return e._commandObserver.remove(),e._commandObserver=null,s}if(c){a(t,c,s.cache),s.check=function(){if(l){var e=a(t,c,s.cache);return e.changed&&o&&void 0!==s.lookupTable[e.value]&&(s.disable(),Promise.resolve(o({value:e.value,type:c.type,prop:c.prop,traces:c.traces,index:s.lookupTable[e.value]})).then(s.enable,s.enable)),e.changed}};for(var u=[\\\"plotly_relayout\\\",\\\"plotly_redraw\\\",\\\"plotly_restyle\\\",\\\"plotly_update\\\",\\\"plotly_animatingframe\\\",\\\"plotly_afterplot\\\"],f=0;f<u.length;f++)t._internalOn(u[f],s.check);s.remove=function(){for(var e=0;e<u.length;e++)t._removeInternalListener(u[e],s.check)}}else i.log(\\\"Unable to automatically bind plot updates to API command\\\"),s.lookupTable={},s.remove=function(){};return s.disable=function(){l=!1},s.enable=function(){l=!0},e&&(e._commandObserver=s),s},r.hasSimpleAPICommandBindings=function(t,e,n){var i,a,o=e.length;for(i=0;i<o;i++){var s,l=e[i],c=l.method,u=l.args;if(Array.isArray(u)||(u=[]),!c)return!1;var f=r.computeAPICommandBindings(t,c,u);if(1!==f.length)return!1;if(a){if((s=f[0]).type!==a.type)return!1;if(s.prop!==a.prop)return!1;if(Array.isArray(a.traces)){if(!Array.isArray(s.traces))return!1;s.traces.sort();for(var h=0;h<a.traces.length;h++)if(a.traces[h]!==s.traces[h])return!1}else if(s.prop!==a.prop)return!1}else a=f[0],Array.isArray(a.traces)&&a.traces.sort();var p=(s=f[0]).value;if(Array.isArray(p)){if(1!==p.length)return!1;p=p[0]}n&&(n[p]=i)}return a},r.executeAPICommand=function(t,e,r){if(\\\"skip\\\"===e)return Promise.resolve();var a=n.apiMethodRegistry[e],o=[t];Array.isArray(r)||(r=[]);for(var s=0;s<r.length;s++)o.push(r[s]);return a.apply(null,o).catch(function(t){return i.warn(\\\"API call to Plotly.\\\"+e+\\\" rejected.\\\",t),Promise.reject(t)})},r.computeAPICommandBindings=function(t,e,r){var n;switch(Array.isArray(r)||(r=[]),e){case\\\"restyle\\\":n=s(t,r);break;case\\\"relayout\\\":n=o(t,r);break;case\\\"update\\\":n=s(t,[r[0],r[2]]).concat(o(t,[r[1]]));break;case\\\"animate\\\":n=function(t,e){return Array.isArray(e[0])&&1===e[0].length&&-1!==[\\\"string\\\",\\\"number\\\"].indexOf(typeof e[0][0])?[{type:\\\"layout\\\",prop:\\\"_currentFrame\\\",value:e[0][0].toString()}]:[]}(0,r);break;default:n=[]}return n}},{\\\"../lib\\\":703,\\\"../registry\\\":831}],776:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../lib/extend\\\").extendFlat;r.attributes=function(t,e){e=e||{};var r={valType:\\\"info_array\\\",editType:(t=t||{}).editType,items:[{valType:\\\"number\\\",min:0,max:1,editType:t.editType},{valType:\\\"number\\\",min:0,max:1,editType:t.editType}],dflt:[0,1]},i=(t.name&&t.name,t.trace,e.description&&e.description,{x:n({},r,{}),y:n({},r,{}),editType:t.editType});return t.noGridCell||(i.row={valType:\\\"integer\\\",min:0,dflt:0,editType:t.editType},i.column={valType:\\\"integer\\\",min:0,dflt:0,editType:t.editType}),i},r.defaults=function(t,e,r,n){var i=n&&n.x||[0,1],a=n&&n.y||[0,1],o=e.grid;if(o){var s=r(\\\"domain.column\\\");void 0!==s&&(s<o.columns?i=o._domains.x[s]:delete t.domain.column);var l=r(\\\"domain.row\\\");void 0!==l&&(l<o.rows?a=o._domains.y[l]:delete t.domain.row)}r(\\\"domain.x\\\",i),r(\\\"domain.y\\\",a)}},{\\\"../lib/extend\\\":693}],777:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=t.editType,r=t.colorEditType;void 0===r&&(r=e);var n={family:{valType:\\\"string\\\",noBlank:!0,strict:!0,editType:e},size:{valType:\\\"number\\\",min:1,editType:e},color:{valType:\\\"color\\\",editType:r},editType:e};return t.arrayOk&&(n.family.arrayOk=!0,n.size.arrayOk=!0,n.color.arrayOk=!0),n}},{}],778:[function(t,e,r){\\\"use strict\\\";e.exports={_isLinkedToArray:\\\"frames_entry\\\",group:{valType:\\\"string\\\"},name:{valType:\\\"string\\\"},traces:{valType:\\\"any\\\"},baseframe:{valType:\\\"string\\\"},data:{valType:\\\"any\\\"},layout:{valType:\\\"any\\\"}}},{}],779:[function(t,e,r){\\\"use strict\\\";r.projNames={equirectangular:\\\"equirectangular\\\",mercator:\\\"mercator\\\",orthographic:\\\"orthographic\\\",\\\"natural earth\\\":\\\"naturalEarth\\\",kavrayskiy7:\\\"kavrayskiy7\\\",miller:\\\"miller\\\",robinson:\\\"robinson\\\",eckert4:\\\"eckert4\\\",\\\"azimuthal equal area\\\":\\\"azimuthalEqualArea\\\",\\\"azimuthal equidistant\\\":\\\"azimuthalEquidistant\\\",\\\"conic equal area\\\":\\\"conicEqualArea\\\",\\\"conic conformal\\\":\\\"conicConformal\\\",\\\"conic equidistant\\\":\\\"conicEquidistant\\\",gnomonic:\\\"gnomonic\\\",stereographic:\\\"stereographic\\\",mollweide:\\\"mollweide\\\",hammer:\\\"hammer\\\",\\\"transverse mercator\\\":\\\"transverseMercator\\\",\\\"albers usa\\\":\\\"albersUsa\\\",\\\"winkel tripel\\\":\\\"winkel3\\\",aitoff:\\\"aitoff\\\",sinusoidal:\\\"sinusoidal\\\"},r.axesNames=[\\\"lonaxis\\\",\\\"lataxis\\\"],r.lonaxisSpan={orthographic:180,\\\"azimuthal equal area\\\":360,\\\"azimuthal equidistant\\\":360,\\\"conic conformal\\\":180,gnomonic:160,stereographic:180,\\\"transverse mercator\\\":180,\\\"*\\\":360},r.lataxisSpan={\\\"conic conformal\\\":150,stereographic:179.5,\\\"*\\\":180},r.scopeDefaults={world:{lonaxisRange:[-180,180],lataxisRange:[-90,90],projType:\\\"equirectangular\\\",projRotate:[0,0,0]},usa:{lonaxisRange:[-180,-50],lataxisRange:[15,80],projType:\\\"albers usa\\\"},europe:{lonaxisRange:[-30,60],lataxisRange:[30,85],projType:\\\"conic conformal\\\",projRotate:[15,0,0],projParallels:[0,60]},asia:{lonaxisRange:[22,160],lataxisRange:[-15,55],projType:\\\"mercator\\\",projRotate:[0,0,0]},africa:{lonaxisRange:[-30,60],lataxisRange:[-40,40],projType:\\\"mercator\\\",projRotate:[0,0,0]},\\\"north america\\\":{lonaxisRange:[-180,-45],lataxisRange:[5,85],projType:\\\"conic conformal\\\",projRotate:[-100,0,0],projParallels:[29.5,45.5]},\\\"south america\\\":{lonaxisRange:[-100,-30],lataxisRange:[-60,15],projType:\\\"mercator\\\",projRotate:[0,0,0]}},r.clipPad=.001,r.precision=.1,r.landColor=\\\"#F0DC82\\\",r.waterColor=\\\"#3399FF\\\",r.locationmodeToLayer={\\\"ISO-3\\\":\\\"countries\\\",\\\"USA-states\\\":\\\"subunits\\\",\\\"country names\\\":\\\"countries\\\"},r.sphereSVG={type:\\\"Sphere\\\"},r.fillLayers={ocean:1,land:1,lakes:1},r.lineLayers={subunits:1,countries:1,coastlines:1,rivers:1,frame:1},r.layers=[\\\"bg\\\",\\\"ocean\\\",\\\"land\\\",\\\"lakes\\\",\\\"subunits\\\",\\\"countries\\\",\\\"coastlines\\\",\\\"rivers\\\",\\\"lataxis\\\",\\\"lonaxis\\\",\\\"frame\\\",\\\"backplot\\\",\\\"frontplot\\\"],r.layersForChoropleth=[\\\"bg\\\",\\\"ocean\\\",\\\"land\\\",\\\"subunits\\\",\\\"countries\\\",\\\"coastlines\\\",\\\"lataxis\\\",\\\"lonaxis\\\",\\\"frame\\\",\\\"backplot\\\",\\\"rivers\\\",\\\"lakes\\\",\\\"frontplot\\\"],r.layerNameToAdjective={ocean:\\\"ocean\\\",land:\\\"land\\\",lakes:\\\"lake\\\",subunits:\\\"subunit\\\",countries:\\\"country\\\",coastlines:\\\"coastline\\\",rivers:\\\"river\\\",frame:\\\"frame\\\"}},{}],780:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"../../lib\\\"),o=t(\\\"../../components/color\\\"),s=t(\\\"../../components/drawing\\\"),l=t(\\\"../../components/fx\\\"),c=t(\\\"../plots\\\"),u=t(\\\"../cartesian/axes\\\"),f=t(\\\"../../components/dragelement\\\"),h=t(\\\"../cartesian/select\\\").prepSelect,p=t(\\\"../cartesian/select\\\").selectOnClick,d=t(\\\"./zoom\\\"),g=t(\\\"./constants\\\"),v=t(\\\"../../lib/topojson_utils\\\"),m=t(\\\"topojson-client\\\").feature;function y(t){this.id=t.id,this.graphDiv=t.graphDiv,this.container=t.container,this.topojsonURL=t.topojsonURL,this.isStatic=t.staticPlot,this.topojsonName=null,this.topojson=null,this.projection=null,this.scope=null,this.viewInitial=null,this.fitScale=null,this.bounds=null,this.midPt=null,this.hasChoropleth=!1,this.traceHash={},this.layers={},this.basePaths={},this.dataPaths={},this.dataPoints={},this.clipDef=null,this.clipRect=null,this.bgRect=null,this.makeFramework()}t(\\\"./projections\\\")(n);var x=y.prototype;e.exports=function(t){return new y(t)},x.plot=function(t,e,r){var n=this,i=e[this.id],a=!1;for(var o in g.layerNameToAdjective)if(\\\"frame\\\"!==o&&i[\\\"show\\\"+o]){a=!0;break}if(!a)return n.update(t,e);var s=v.getTopojsonName(i);null===n.topojson||s!==n.topojsonName?(n.topojsonName=s,void 0===PlotlyGeoAssets.topojson[n.topojsonName]?r.push(n.fetchTopojson().then(function(r){PlotlyGeoAssets.topojson[n.topojsonName]=r,n.topojson=r,n.update(t,e)})):(n.topojson=PlotlyGeoAssets.topojson[n.topojsonName],n.update(t,e))):n.update(t,e)},x.fetchTopojson=function(){var t=v.getTopojsonPath(this.topojsonURL,this.topojsonName);return new Promise(function(e,r){n.json(t,function(n,i){if(n)return 404===n.status?r(new Error([\\\"plotly.js could not find topojson file at\\\",t,\\\".\\\",\\\"Make sure the *topojsonURL* plot config option\\\",\\\"is set properly.\\\"].join(\\\" \\\"))):r(new Error([\\\"unexpected error while fetching topojson file at\\\",t].join(\\\" \\\")));e(i)})})},x.update=function(t,e){var r=e[this.id];if(!this.updateProjection(e,r)){this.hasChoropleth=!1;for(var n=0;n<t.length;n++)if(\\\"choropleth\\\"===t[n][0].trace.type){this.hasChoropleth=!0;break}this.viewInitial&&this.scope===r.scope||this.saveViewInitial(r),this.scope=r.scope,this.updateBaseLayers(e,r),this.updateDims(e,r),this.updateFx(e,r),c.generalUpdatePerTraceModule(this.graphDiv,this,t,r);var i=this.layers.frontplot.select(\\\".scatterlayer\\\");this.dataPoints.point=i.selectAll(\\\".point\\\"),this.dataPoints.text=i.selectAll(\\\"text\\\"),this.dataPaths.line=i.selectAll(\\\".js-line\\\");var a=this.layers.backplot.select(\\\".choroplethlayer\\\");this.dataPaths.choropleth=a.selectAll(\\\"path\\\"),this.render()}},x.updateProjection=function(t,e){var r=t._size,o=e.domain,s=e.projection,l=s.rotation||{},c=e.center||{},u=this.projection=function(t){for(var e=t.projection.type,r=n.geo[g.projNames[e]](),i=t._isClipped?g.lonaxisSpan[e]/2:null,a=[\\\"center\\\",\\\"rotate\\\",\\\"parallels\\\",\\\"clipExtent\\\"],o=function(t){return t?r:[]},s=0;s<a.length;s++){var l=a[s];\\\"function\\\"!=typeof r[l]&&(r[l]=o)}r.isLonLatOverEdges=function(t){if(null===r(t))return!0;if(i){var e=r.rotate();return n.geo.distance(t,[-e[0],-e[1]])>i*Math.PI/180}return!1},r.getPath=function(){return n.geo.path().projection(r)},r.getBounds=function(t){return r.getPath().bounds(t)},r.fitExtent=function(t,e){var n=t[1][0]-t[0][0],i=t[1][1]-t[0][1],a=r.clipExtent&&r.clipExtent();r.scale(150).translate([0,0]),a&&r.clipExtent(null);var o=r.getBounds(e),s=Math.min(n/(o[1][0]-o[0][0]),i/(o[1][1]-o[0][1])),l=+t[0][0]+(n-s*(o[1][0]+o[0][0]))/2,c=+t[0][1]+(i-s*(o[1][1]+o[0][1]))/2;return a&&r.clipExtent(a),r.scale(150*s).translate([l,c])},r.precision(g.precision),i&&r.clipAngle(i-g.clipPad);return r}(e);u.center([c.lon-l.lon,c.lat-l.lat]).rotate([-l.lon,-l.lat,l.roll]).parallels(s.parallels);var f=[[r.l+r.w*o.x[0],r.t+r.h*(1-o.y[1])],[r.l+r.w*o.x[1],r.t+r.h*(1-o.y[0])]],h=e.lonaxis,p=e.lataxis,d=function(t,e){var r=g.clipPad,n=t[0]+r,i=t[1]-r,a=e[0]+r,o=e[1]-r;n>0&&i<0&&(i+=360);var s=(i-n)/4;return{type:\\\"Polygon\\\",coordinates:[[[n,a],[n,o],[n+s,o],[n+2*s,o],[n+3*s,o],[i,o],[i,a],[i-s,a],[i-2*s,a],[i-3*s,a],[n,a]]]}}(h.range,p.range);u.fitExtent(f,d);var v=this.bounds=u.getBounds(d),m=this.fitScale=u.scale(),y=u.translate();if(!isFinite(v[0][0])||!isFinite(v[0][1])||!isFinite(v[1][0])||!isFinite(v[1][1])||isNaN(y[0])||isNaN(y[0])){for(var x=this.graphDiv,b=[\\\"projection.rotation\\\",\\\"center\\\",\\\"lonaxis.range\\\",\\\"lataxis.range\\\"],_=\\\"Invalid geo settings, relayout'ing to default view.\\\",w={},k=0;k<b.length;k++)w[this.id+\\\".\\\"+b[k]]=null;return this.viewInitial=null,a.warn(_),x._promises.push(i.call(\\\"relayout\\\",x,w)),_}var T=this.midPt=[(v[0][0]+v[1][0])/2,(v[0][1]+v[1][1])/2];if(u.scale(s.scale*m).translate([y[0]+(T[0]-y[0]),y[1]+(T[1]-y[1])]).clipExtent(v),e._isAlbersUsa){var A=u([c.lon,c.lat]),M=u.translate();u.translate([M[0]-(A[0]-M[0]),M[1]-(A[1]-M[1])])}},x.updateBaseLayers=function(t,e){var r=this,i=r.topojson,a=r.layers,l=r.basePaths;function c(t){return\\\"lonaxis\\\"===t||\\\"lataxis\\\"===t}function f(t){return Boolean(g.lineLayers[t])}function h(t){return Boolean(g.fillLayers[t])}var p=(this.hasChoropleth?g.layersForChoropleth:g.layers).filter(function(t){return f(t)||h(t)?e[\\\"show\\\"+t]:!c(t)||e[t].showgrid}),d=r.framework.selectAll(\\\".layer\\\").data(p,String);d.exit().each(function(t){delete a[t],delete l[t],n.select(this).remove()}),d.enter().append(\\\"g\\\").attr(\\\"class\\\",function(t){return\\\"layer \\\"+t}).each(function(t){var e=a[t]=n.select(this);\\\"bg\\\"===t?r.bgRect=e.append(\\\"rect\\\").style(\\\"pointer-events\\\",\\\"all\\\"):c(t)?l[t]=e.append(\\\"path\\\").style(\\\"fill\\\",\\\"none\\\"):\\\"backplot\\\"===t?e.append(\\\"g\\\").classed(\\\"choroplethlayer\\\",!0):\\\"frontplot\\\"===t?e.append(\\\"g\\\").classed(\\\"scatterlayer\\\",!0):f(t)?l[t]=e.append(\\\"path\\\").style(\\\"fill\\\",\\\"none\\\").style(\\\"stroke-miterlimit\\\",2):h(t)&&(l[t]=e.append(\\\"path\\\").style(\\\"stroke\\\",\\\"none\\\"))}),d.order(),d.each(function(r){var n=l[r],a=g.layerNameToAdjective[r];\\\"frame\\\"===r?n.datum(g.sphereSVG):f(r)||h(r)?n.datum(m(i,i.objects[r])):c(r)&&n.datum(function(t,e,r){var n,i,a,o=e[t],s=g.scopeDefaults[e.scope];\\\"lonaxis\\\"===t?(n=s.lonaxisRange,i=s.lataxisRange,a=function(t,e){return[t,e]}):\\\"lataxis\\\"===t&&(n=s.lataxisRange,i=s.lonaxisRange,a=function(t,e){return[e,t]});var l={type:\\\"linear\\\",range:[n[0],n[1]-1e-6],tick0:o.tick0,dtick:o.dtick};u.setConvert(l,r);var c=u.calcTicks(l);e.isScoped||\\\"lonaxis\\\"!==t||c.pop();for(var f=c.length,h=new Array(f),p=0;p<f;p++)for(var d=c[p].x,v=h[p]=[],m=i[0];m<i[1]+2.5;m+=2.5)v.push(a(d,m));return{type:\\\"MultiLineString\\\",coordinates:h}}(r,e,t)).call(o.stroke,e[r].gridcolor).call(s.dashLine,\\\"\\\",e[r].gridwidth),f(r)?n.call(o.stroke,e[a+\\\"color\\\"]).call(s.dashLine,\\\"\\\",e[a+\\\"width\\\"]):h(r)&&n.call(o.fill,e[a+\\\"color\\\"])})},x.updateDims=function(t,e){var r=this.bounds,n=(e.framewidth||0)/2,i=r[0][0]-n,a=r[0][1]-n,l=r[1][0]-i+n,c=r[1][1]-a+n;s.setRect(this.clipRect,i,a,l,c),this.bgRect.call(s.setRect,i,a,l,c).call(o.fill,e.bgcolor),this.xaxis._offset=i,this.xaxis._length=l,this.yaxis._offset=a,this.yaxis._length=c},x.updateFx=function(t,e){var r=this,a=r.graphDiv,o=r.bgRect,s=t.dragmode,c=t.clickmode;if(!r.isStatic){var u;\\\"select\\\"===s?u=function(t,e){(t.range={})[r.id]=[v([e.xmin,e.ymin]),v([e.xmax,e.ymax])]}:\\\"lasso\\\"===s&&(u=function(t,e,n){(t.lassoPoints={})[r.id]=n.filtered.map(v)});var g={element:r.bgRect.node(),gd:a,plotinfo:{id:r.id,xaxis:r.xaxis,yaxis:r.yaxis,fillRangeItems:u},xaxes:[r.xaxis],yaxes:[r.yaxis],subplot:r.id,clickFn:function(e){2===e&&t._zoomlayer.selectAll(\\\".select-outline\\\").remove()}};\\\"pan\\\"===s?(o.node().onmousedown=null,o.call(d(r,e)),o.on(\\\"dblclick.zoom\\\",function(){var t=r.viewInitial,e={};for(var n in t)e[r.id+\\\".\\\"+n]=t[n];i.call(\\\"_guiRelayout\\\",a,e),a.emit(\\\"plotly_doubleclick\\\",null)}),a._context._scrollZoom.geo||o.on(\\\"wheel.zoom\\\",null)):\\\"select\\\"!==s&&\\\"lasso\\\"!==s||(o.on(\\\".zoom\\\",null),g.prepFn=function(t,e,r){h(t,e,r,g,s)},f.init(g)),o.on(\\\"mousemove\\\",function(){var t=r.projection.invert(n.mouse(this));if(!t||isNaN(t[0])||isNaN(t[1]))return f.unhover(a,n.event);r.xaxis.p2c=function(){return t[0]},r.yaxis.p2c=function(){return t[1]},l.hover(a,n.event,r.id)}),o.on(\\\"mouseout\\\",function(){a._dragging||f.unhover(a,n.event)}),o.on(\\\"click\\\",function(){\\\"select\\\"!==s&&\\\"lasso\\\"!==s&&(c.indexOf(\\\"select\\\")>-1&&p(n.event,a,[r.xaxis],[r.yaxis],r.id,g),c.indexOf(\\\"event\\\")>-1&&l.click(a,n.event))})}function v(t){return r.projection.invert([t[0]+r.xaxis._offset,t[1]+r.yaxis._offset])}},x.makeFramework=function(){var t=this,e=t.graphDiv,r=e._fullLayout,i=\\\"clip\\\"+r._uid+t.id;t.clipDef=r._clips.append(\\\"clipPath\\\").attr(\\\"id\\\",i),t.clipRect=t.clipDef.append(\\\"rect\\\"),t.framework=n.select(t.container).append(\\\"g\\\").attr(\\\"class\\\",\\\"geo \\\"+t.id).call(s.setClipUrl,i,e),t.project=function(e){var r=t.projection(e);return r?[r[0]-t.xaxis._offset,r[1]-t.yaxis._offset]:[null,null]},t.xaxis={_id:\\\"x\\\",c2p:function(e){return t.project(e)[0]}},t.yaxis={_id:\\\"y\\\",c2p:function(e){return t.project(e)[1]}},t.mockAxis={type:\\\"linear\\\",showexponent:\\\"all\\\",exponentformat:\\\"B\\\"},u.setConvert(t.mockAxis,r)},x.saveViewInitial=function(t){var e=t.center||{},r=t.projection,n=r.rotation||{};t._isScoped?this.viewInitial={\\\"center.lon\\\":e.lon,\\\"center.lat\\\":e.lat,\\\"projection.scale\\\":r.scale}:t._isClipped?this.viewInitial={\\\"projection.scale\\\":r.scale,\\\"projection.rotation.lon\\\":n.lon,\\\"projection.rotation.lat\\\":n.lat}:this.viewInitial={\\\"center.lon\\\":e.lon,\\\"center.lat\\\":e.lat,\\\"projection.scale\\\":r.scale,\\\"projection.rotation.lon\\\":n.lon}},x.render=function(){var t,e=this.projection,r=e.getPath();function n(t){var r=e(t.lonlat);return r?\\\"translate(\\\"+r[0]+\\\",\\\"+r[1]+\\\")\\\":null}function i(t){return e.isLonLatOverEdges(t.lonlat)?\\\"none\\\":null}for(t in this.basePaths)this.basePaths[t].attr(\\\"d\\\",r);for(t in this.dataPaths)this.dataPaths[t].attr(\\\"d\\\",function(t){return r(t.geojson)});for(t in this.dataPoints)this.dataPoints[t].attr(\\\"display\\\",i).attr(\\\"transform\\\",n)}},{\\\"../../components/color\\\":580,\\\"../../components/dragelement\\\":598,\\\"../../components/drawing\\\":601,\\\"../../components/fx\\\":619,\\\"../../lib\\\":703,\\\"../../lib/topojson_utils\\\":730,\\\"../../registry\\\":831,\\\"../cartesian/axes\\\":751,\\\"../cartesian/select\\\":768,\\\"../plots\\\":812,\\\"./constants\\\":779,\\\"./projections\\\":784,\\\"./zoom\\\":785,d3:157,\\\"topojson-client\\\":527}],781:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/get_data\\\").getSubplotCalcData,i=t(\\\"../../lib\\\").counterRegex,a=t(\\\"./geo\\\"),o=\\\"geo\\\",s=i(o),l={};l[o]={valType:\\\"subplotid\\\",dflt:o,editType:\\\"calc\\\"},e.exports={attr:o,name:o,idRoot:o,idRegex:s,attrRegex:s,attributes:l,layoutAttributes:t(\\\"./layout_attributes\\\"),supplyLayoutDefaults:t(\\\"./layout_defaults\\\"),plot:function(t){var e=t._fullLayout,r=t.calcdata,i=e._subplots[o];void 0===window.PlotlyGeoAssets&&(window.PlotlyGeoAssets={topojson:{}});for(var s=0;s<i.length;s++){var l=i[s],c=n(r,o,l),u=e[l]._subplot;u||(u=a({id:l,graphDiv:t,container:e._geolayer.node(),topojsonURL:t._context.topojsonURL,staticPlot:t._context.staticPlot}),e[l]._subplot=u),u.plot(c,e,t._promises)}},updateFx:function(t){for(var e=t._fullLayout,r=e._subplots[o],n=0;n<r.length;n++){var i=e[r[n]];i._subplot.updateFx(e,i)}},clean:function(t,e,r,n){for(var i=n._subplots[o]||[],a=0;a<i.length;a++){var s=i[a],l=n[s]._subplot;!e[s]&&l&&(l.framework.remove(),l.clipDef.remove())}}}},{\\\"../../lib\\\":703,\\\"../../plots/get_data\\\":786,\\\"./geo\\\":780,\\\"./layout_attributes\\\":782,\\\"./layout_defaults\\\":783}],782:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/color/attributes\\\"),i=t(\\\"../domain\\\").attributes,a=t(\\\"./constants\\\"),o=t(\\\"../../plot_api/edit_types\\\").overrideAll,s={range:{valType:\\\"info_array\\\",items:[{valType:\\\"number\\\"},{valType:\\\"number\\\"}]},showgrid:{valType:\\\"boolean\\\",dflt:!1},tick0:{valType:\\\"number\\\",dflt:0},dtick:{valType:\\\"number\\\"},gridcolor:{valType:\\\"color\\\",dflt:n.lightLine},gridwidth:{valType:\\\"number\\\",min:0,dflt:1}};(e.exports=o({domain:i({name:\\\"geo\\\"},{}),resolution:{valType:\\\"enumerated\\\",values:[110,50],dflt:110,coerceNumber:!0},scope:{valType:\\\"enumerated\\\",values:Object.keys(a.scopeDefaults),dflt:\\\"world\\\"},projection:{type:{valType:\\\"enumerated\\\",values:Object.keys(a.projNames)},rotation:{lon:{valType:\\\"number\\\"},lat:{valType:\\\"number\\\"},roll:{valType:\\\"number\\\"}},parallels:{valType:\\\"info_array\\\",items:[{valType:\\\"number\\\"},{valType:\\\"number\\\"}]},scale:{valType:\\\"number\\\",min:0,dflt:1}},center:{lon:{valType:\\\"number\\\"},lat:{valType:\\\"number\\\"}},showcoastlines:{valType:\\\"boolean\\\"},coastlinecolor:{valType:\\\"color\\\",dflt:n.defaultLine},coastlinewidth:{valType:\\\"number\\\",min:0,dflt:1},showland:{valType:\\\"boolean\\\",dflt:!1},landcolor:{valType:\\\"color\\\",dflt:a.landColor},showocean:{valType:\\\"boolean\\\",dflt:!1},oceancolor:{valType:\\\"color\\\",dflt:a.waterColor},showlakes:{valType:\\\"boolean\\\",dflt:!1},lakecolor:{valType:\\\"color\\\",dflt:a.waterColor},showrivers:{valType:\\\"boolean\\\",dflt:!1},rivercolor:{valType:\\\"color\\\",dflt:a.waterColor},riverwidth:{valType:\\\"number\\\",min:0,dflt:1},showcountries:{valType:\\\"boolean\\\"},countrycolor:{valType:\\\"color\\\",dflt:n.defaultLine},countrywidth:{valType:\\\"number\\\",min:0,dflt:1},showsubunits:{valType:\\\"boolean\\\"},subunitcolor:{valType:\\\"color\\\",dflt:n.defaultLine},subunitwidth:{valType:\\\"number\\\",min:0,dflt:1},showframe:{valType:\\\"boolean\\\"},framecolor:{valType:\\\"color\\\",dflt:n.defaultLine},framewidth:{valType:\\\"number\\\",min:0,dflt:1},bgcolor:{valType:\\\"color\\\",dflt:n.background},lonaxis:s,lataxis:s},\\\"plot\\\",\\\"from-root\\\")).uirevision={valType:\\\"any\\\",editType:\\\"none\\\"}},{\\\"../../components/color/attributes\\\":579,\\\"../../plot_api/edit_types\\\":734,\\\"../domain\\\":776,\\\"./constants\\\":779}],783:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../subplot_defaults\\\"),i=t(\\\"./constants\\\"),a=t(\\\"./layout_attributes\\\"),o=i.axesNames;function s(t,e,r){var n=r(\\\"resolution\\\"),a=r(\\\"scope\\\"),s=i.scopeDefaults[a],l=r(\\\"projection.type\\\",s.projType),c=e._isAlbersUsa=\\\"albers usa\\\"===l;c&&(a=e.scope=\\\"usa\\\");var u=e._isScoped=\\\"world\\\"!==a,f=e._isConic=-1!==l.indexOf(\\\"conic\\\");e._isClipped=!!i.lonaxisSpan[l];for(var h=0;h<o.length;h++){var p,d=o[h],g=[30,10][h];if(u)p=s[d+\\\"Range\\\"];else{var v=i[d+\\\"Span\\\"],m=(v[l]||v[\\\"*\\\"])/2,y=r(\\\"projection.rotation.\\\"+d.substr(0,3),s.projRotate[h]);p=[y-m,y+m]}r(d+\\\".range\\\",p),r(d+\\\".tick0\\\"),r(d+\\\".dtick\\\",g),r(d+\\\".showgrid\\\")&&(r(d+\\\".gridcolor\\\"),r(d+\\\".gridwidth\\\"))}var x=e.lonaxis.range,b=e.lataxis.range,_=x[0],w=x[1];_>0&&w<0&&(w+=360);var k,T,A,M=(_+w)/2;if(!c){var S=u?s.projRotate:[M,0,0];k=r(\\\"projection.rotation.lon\\\",S[0]),r(\\\"projection.rotation.lat\\\",S[1]),r(\\\"projection.rotation.roll\\\",S[2]),r(\\\"showcoastlines\\\",!u)&&(r(\\\"coastlinecolor\\\"),r(\\\"coastlinewidth\\\")),r(\\\"showocean\\\")&&r(\\\"oceancolor\\\")}(c?(T=-96.6,A=38.7):(T=u?M:k,A=(b[0]+b[1])/2),r(\\\"center.lon\\\",T),r(\\\"center.lat\\\",A),f)&&r(\\\"projection.parallels\\\",s.projParallels||[0,60]);r(\\\"projection.scale\\\"),r(\\\"showland\\\")&&r(\\\"landcolor\\\"),r(\\\"showlakes\\\")&&r(\\\"lakecolor\\\"),r(\\\"showrivers\\\")&&(r(\\\"rivercolor\\\"),r(\\\"riverwidth\\\")),r(\\\"showcountries\\\",u&&\\\"usa\\\"!==a)&&(r(\\\"countrycolor\\\"),r(\\\"countrywidth\\\")),(\\\"usa\\\"===a||\\\"north america\\\"===a&&50===n)&&(r(\\\"showsubunits\\\",!0),r(\\\"subunitcolor\\\"),r(\\\"subunitwidth\\\")),u||r(\\\"showframe\\\",!0)&&(r(\\\"framecolor\\\"),r(\\\"framewidth\\\")),r(\\\"bgcolor\\\")}e.exports=function(t,e,r){n(t,e,r,{type:\\\"geo\\\",attributes:a,handleDefaults:s,partition:\\\"y\\\"})}},{\\\"../subplot_defaults\\\":826,\\\"./constants\\\":779,\\\"./layout_attributes\\\":782}],784:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){function e(t,e){return{type:\\\"Feature\\\",id:t.id,properties:t.properties,geometry:r(t.geometry,e)}}function r(e,n){if(!e)return null;if(\\\"GeometryCollection\\\"===e.type)return{type:\\\"GeometryCollection\\\",geometries:object.geometries.map(function(t){return r(t,n)})};if(!c.hasOwnProperty(e.type))return null;var i=c[e.type];return t.geo.stream(e,n(i)),i.result()}t.geo.project=function(t,e){var i=e.stream;if(!i)throw new Error(\\\"not yet supported\\\");return(t&&n.hasOwnProperty(t.type)?n[t.type]:r)(t,i)};var n={Feature:e,FeatureCollection:function(t,r){return{type:\\\"FeatureCollection\\\",features:t.features.map(function(t){return e(t,r)})}}},i=[],a=[],o={point:function(t,e){i.push([t,e])},result:function(){var t=i.length?i.length<2?{type:\\\"Point\\\",coordinates:i[0]}:{type:\\\"MultiPoint\\\",coordinates:i}:null;return i=[],t}},s={lineStart:u,point:function(t,e){i.push([t,e])},lineEnd:function(){i.length&&(a.push(i),i=[])},result:function(){var t=a.length?a.length<2?{type:\\\"LineString\\\",coordinates:a[0]}:{type:\\\"MultiLineString\\\",coordinates:a}:null;return a=[],t}},l={polygonStart:u,lineStart:u,point:function(t,e){i.push([t,e])},lineEnd:function(){var t=i.length;if(t){do{i.push(i[0].slice())}while(++t<4);a.push(i),i=[]}},polygonEnd:u,result:function(){if(!a.length)return null;var t=[],e=[];return a.forEach(function(r){!function(t){if((e=t.length)<4)return!1;for(var e,r=0,n=t[e-1][1]*t[0][0]-t[e-1][0]*t[0][1];++r<e;)n+=t[r-1][1]*t[r][0]-t[r-1][0]*t[r][1];return n<=0}(r)?e.push(r):t.push([r])}),e.forEach(function(e){var r=e[0];t.some(function(t){if(function(t,e){for(var r=e[0],n=e[1],i=!1,a=0,o=t.length,s=o-1;a<o;s=a++){var l=t[a],c=l[0],u=l[1],f=t[s],h=f[0],p=f[1];u>n^p>n&&r<(h-c)*(n-u)/(p-u)+c&&(i=!i)}return i}(t[0],r))return t.push(e),!0})||t.push([e])}),a=[],t.length?t.length>1?{type:\\\"MultiPolygon\\\",coordinates:t}:{type:\\\"Polygon\\\",coordinates:t[0]}:null}},c={Point:o,MultiPoint:o,LineString:s,MultiLineString:s,Polygon:l,MultiPolygon:l,Sphere:l};function u(){}var f=1e-6,h=f*f,p=Math.PI,d=p/2,g=(Math.sqrt(p),p/180),v=180/p;function m(t){return t>1?d:t<-1?-d:Math.asin(t)}function y(t){return t>1?0:t<-1?p:Math.acos(t)}var x=t.geo.projection,b=t.geo.projectionMutator;function _(t,e){var r=(2+d)*Math.sin(e);e/=2;for(var n=0,i=1/0;n<10&&Math.abs(i)>f;n++){var a=Math.cos(e);e-=i=(e+Math.sin(e)*(a+2)-r)/(2*a*(1+a))}return[2/Math.sqrt(p*(4+p))*t*(1+Math.cos(e)),2*Math.sqrt(p/(4+p))*Math.sin(e)]}t.geo.interrupt=function(e){var r,n=[[[[-p,0],[0,d],[p,0]]],[[[-p,0],[0,-d],[p,0]]]];function i(t,r){for(var i=r<0?-1:1,a=n[+(r<0)],o=0,s=a.length-1;o<s&&t>a[o][2][0];++o);var l=e(t-a[o][1][0],r);return l[0]+=e(a[o][1][0],i*r>i*a[o][0][1]?a[o][0][1]:r)[0],l}e.invert&&(i.invert=function(t,a){for(var o=r[+(a<0)],s=n[+(a<0)],c=0,u=o.length;c<u;++c){var f=o[c];if(f[0][0]<=t&&t<f[1][0]&&f[0][1]<=a&&a<f[1][1]){var h=e.invert(t-e(s[c][1][0],0)[0],a);return h[0]+=s[c][1][0],l(i(h[0],h[1]),[t,a])?h:null}}});var a=t.geo.projection(i),o=a.stream;function s(t,e){for(var r,n,i,a=-1,o=t.length,s=t[0],l=[];++a<o;){n=((r=t[a])[0]-s[0])/e,i=(r[1]-s[1])/e;for(var c=0;c<e;++c)l.push([s[0]+c*n,s[1]+c*i]);s=r}return l.push(r),l}function l(t,e){return Math.abs(t[0]-e[0])<f&&Math.abs(t[1]-e[1])<f}return a.stream=function(e){var r=a.rotate(),i=o(e),l=(a.rotate([0,0]),o(e));return a.rotate(r),i.sphere=function(){t.geo.stream(function(){for(var e=1e-6,r=[],i=0,a=n[0].length;i<a;++i){var o=n[0][i],l=180*o[0][0]/p,c=180*o[0][1]/p,u=180*o[1][1]/p,f=180*o[2][0]/p,h=180*o[2][1]/p;r.push(s([[l+e,c+e],[l+e,u-e],[f-e,u-e],[f-e,h+e]],30))}for(var i=n[1].length-1;i>=0;--i){var o=n[1][i],l=180*o[0][0]/p,c=180*o[0][1]/p,u=180*o[1][1]/p,f=180*o[2][0]/p,h=180*o[2][1]/p;r.push(s([[f-e,h-e],[f-e,u+e],[l+e,u+e],[l+e,c-e]],30))}return{type:\\\"Polygon\\\",coordinates:[t.merge(r)]}}(),l)},i},a.lobes=function(t){return arguments.length?(n=t.map(function(t){return t.map(function(t){return[[t[0][0]*p/180,t[0][1]*p/180],[t[1][0]*p/180,t[1][1]*p/180],[t[2][0]*p/180,t[2][1]*p/180]]})}),r=n.map(function(t){return t.map(function(t){var r,n=e(t[0][0],t[0][1])[0],i=e(t[2][0],t[2][1])[0],a=e(t[1][0],t[0][1])[1],o=e(t[1][0],t[1][1])[1];return a>o&&(r=a,a=o,o=r),[[n,a],[i,o]]})}),a):n.map(function(t){return t.map(function(t){return[[180*t[0][0]/p,180*t[0][1]/p],[180*t[1][0]/p,180*t[1][1]/p],[180*t[2][0]/p,180*t[2][1]/p]]})})},a},_.invert=function(t,e){var r=.5*e*Math.sqrt((4+p)/p),n=m(r),i=Math.cos(n);return[t/(2/Math.sqrt(p*(4+p))*(1+i)),m((n+r*(i+2))/(2+d))]},(t.geo.eckert4=function(){return x(_)}).raw=_;var w=t.geo.azimuthalEqualArea.raw;function k(t,e){if(arguments.length<2&&(e=t),1===e)return w;if(e===1/0)return T;function r(r,n){var i=w(r/e,n);return i[0]*=t,i}return r.invert=function(r,n){var i=w.invert(r/t,n);return i[0]*=e,i},r}function T(t,e){return[t*Math.cos(e)/Math.cos(e/=2),2*Math.sin(e)]}function A(t,e){return[3*t/(2*p)*Math.sqrt(p*p/3-e*e),e]}function M(t,e){return[t,1.25*Math.log(Math.tan(p/4+.4*e))]}function S(t){return function(e){var r,n=t*Math.sin(e),i=30;do{e-=r=(e+Math.sin(e)-n)/(1+Math.cos(e))}while(Math.abs(r)>f&&--i>0);return e/2}}T.invert=function(t,e){var r=2*m(e/2);return[t*Math.cos(r/2)/Math.cos(r),r]},(t.geo.hammer=function(){var t=2,e=b(k),r=e(t);return r.coefficient=function(r){return arguments.length?e(t=+r):t},r}).raw=k,A.invert=function(t,e){return[2/3*p*t/Math.sqrt(p*p/3-e*e),e]},(t.geo.kavrayskiy7=function(){return x(A)}).raw=A,M.invert=function(t,e){return[t,2.5*Math.atan(Math.exp(.8*e))-.625*p]},(t.geo.miller=function(){return x(M)}).raw=M,S(p);var E=function(t,e,r){var n=S(r);function i(r,i){return[t*r*Math.cos(i=n(i)),e*Math.sin(i)]}return i.invert=function(n,i){var a=m(i/e);return[n/(t*Math.cos(a)),m((2*a+Math.sin(2*a))/r)]},i}(Math.SQRT2/d,Math.SQRT2,p);function C(t,e){var r=e*e,n=r*r;return[t*(.8707-.131979*r+n*(n*(.003971*r-.001529*n)-.013791)),e*(1.007226+r*(.015085+n*(.028874*r-.044475-.005916*n)))]}(t.geo.mollweide=function(){return x(E)}).raw=E,C.invert=function(t,e){var r,n=e,i=25;do{var a=n*n,o=a*a;n-=r=(n*(1.007226+a*(.015085+o*(.028874*a-.044475-.005916*o)))-e)/(1.007226+a*(.045255+o*(.259866*a-.311325-.005916*11*o)))}while(Math.abs(r)>f&&--i>0);return[t/(.8707+(a=n*n)*(a*(a*a*a*(.003971-.001529*a)-.013791)-.131979)),n]},(t.geo.naturalEarth=function(){return x(C)}).raw=C;var L=[[.9986,-.062],[1,0],[.9986,.062],[.9954,.124],[.99,.186],[.9822,.248],[.973,.31],[.96,.372],[.9427,.434],[.9216,.4958],[.8962,.5571],[.8679,.6176],[.835,.6769],[.7986,.7346],[.7597,.7903],[.7186,.8435],[.6732,.8936],[.6213,.9394],[.5722,.9761],[.5322,1]];function z(t,e){var r,n=Math.min(18,36*Math.abs(e)/p),i=Math.floor(n),a=n-i,o=(r=L[i])[0],s=r[1],l=(r=L[++i])[0],c=r[1],u=(r=L[Math.min(19,++i)])[0],f=r[1];return[t*(l+a*(u-o)/2+a*a*(u-2*l+o)/2),(e>0?d:-d)*(c+a*(f-s)/2+a*a*(f-2*c+s)/2)]}function O(t,e){return[t*Math.cos(e),e]}function I(t,e){var r,n=Math.cos(e),i=(r=y(n*Math.cos(t/=2)))?r/Math.sin(r):1;return[2*n*Math.sin(t)*i,Math.sin(e)*i]}function D(t,e){var r=I(t,e);return[(r[0]+t/d)/2,(r[1]+e)/2]}L.forEach(function(t){t[1]*=1.0144}),z.invert=function(t,e){var r=e/d,n=90*r,i=Math.min(18,Math.abs(n/5)),a=Math.max(0,Math.floor(i));do{var o=L[a][1],s=L[a+1][1],l=L[Math.min(19,a+2)][1],c=l-o,u=l-2*s+o,f=2*(Math.abs(r)-s)/c,p=u/c,m=f*(1-p*f*(1-2*p*f));if(m>=0||1===a){n=(e>=0?5:-5)*(m+i);var y,x=50;do{m=(i=Math.min(18,Math.abs(n)/5))-(a=Math.floor(i)),o=L[a][1],s=L[a+1][1],l=L[Math.min(19,a+2)][1],n-=(y=(e>=0?d:-d)*(s+m*(l-o)/2+m*m*(l-2*s+o)/2)-e)*v}while(Math.abs(y)>h&&--x>0);break}}while(--a>=0);var b=L[a][0],_=L[a+1][0],w=L[Math.min(19,a+2)][0];return[t/(_+m*(w-b)/2+m*m*(w-2*_+b)/2),n*g]},(t.geo.robinson=function(){return x(z)}).raw=z,O.invert=function(t,e){return[t/Math.cos(e),e]},(t.geo.sinusoidal=function(){return x(O)}).raw=O,I.invert=function(t,e){if(!(t*t+4*e*e>p*p+f)){var r=t,n=e,i=25;do{var a,o=Math.sin(r),s=Math.sin(r/2),l=Math.cos(r/2),c=Math.sin(n),u=Math.cos(n),h=Math.sin(2*n),d=c*c,g=u*u,v=s*s,m=1-g*l*l,x=m?y(u*l)*Math.sqrt(a=1/m):a=0,b=2*x*u*s-t,_=x*c-e,w=a*(g*v+x*u*l*d),k=a*(.5*o*h-2*x*c*s),T=.25*a*(h*s-x*c*g*o),A=a*(d*l+x*v*u),M=k*T-A*w;if(!M)break;var S=(_*k-b*A)/M,E=(b*T-_*w)/M;r-=S,n-=E}while((Math.abs(S)>f||Math.abs(E)>f)&&--i>0);return[r,n]}},(t.geo.aitoff=function(){return x(I)}).raw=I,D.invert=function(t,e){var r=t,n=e,i=25;do{var a,o=Math.cos(n),s=Math.sin(n),l=Math.sin(2*n),c=s*s,u=o*o,h=Math.sin(r),p=Math.cos(r/2),g=Math.sin(r/2),v=g*g,m=1-u*p*p,x=m?y(o*p)*Math.sqrt(a=1/m):a=0,b=.5*(2*x*o*g+r/d)-t,_=.5*(x*s+n)-e,w=.5*a*(u*v+x*o*p*c)+.5/d,k=a*(h*l/4-x*s*g),T=.125*a*(l*g-x*s*u*h),A=.5*a*(c*p+x*v*o)+.5,M=k*T-A*w,S=(_*k-b*A)/M,E=(b*T-_*w)/M;r-=S,n-=E}while((Math.abs(S)>f||Math.abs(E)>f)&&--i>0);return[r,n]},(t.geo.winkel3=function(){return x(D)}).raw=D}},{}],785:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../registry\\\"),o=Math.PI/180,s=180/Math.PI,l={cursor:\\\"pointer\\\"},c={cursor:\\\"auto\\\"};function u(t,e){return n.behavior.zoom().translate(e.translate()).scale(e.scale())}function f(t,e,r){var n=t.id,o=t.graphDiv,s=o.layout,l=s[n],c=o._fullLayout,u=c[n],f={},h={};function p(t,e){f[n+\\\".\\\"+t]=i.nestedProperty(l,t).get(),a.call(\\\"_storeDirectGUIEdit\\\",s,c._preGUI,f);var r=i.nestedProperty(u,t);r.get()!==e&&(r.set(e),i.nestedProperty(l,t).set(e),h[n+\\\".\\\"+t]=e)}r(p),p(\\\"projection.scale\\\",e.scale()/t.fitScale),o.emit(\\\"plotly_relayout\\\",h)}function h(t,e){var r=u(0,e);function i(r){var n=e.invert(t.midPt);r(\\\"center.lon\\\",n[0]),r(\\\"center.lat\\\",n[1])}return r.on(\\\"zoomstart\\\",function(){n.select(this).style(l)}).on(\\\"zoom\\\",function(){e.scale(n.event.scale).translate(n.event.translate),t.render();var r=e.invert(t.midPt);t.graphDiv.emit(\\\"plotly_relayouting\\\",{\\\"geo.projection.scale\\\":e.scale()/t.fitScale,\\\"geo.center.lon\\\":r[0],\\\"geo.center.lat\\\":r[1]})}).on(\\\"zoomend\\\",function(){n.select(this).style(c),f(t,e,i)}),r}function p(t,e){var r,i,a,o,s,h,p,d,g,v=u(0,e),m=2;function y(t){return e.invert(t)}function x(r){var n=e.rotate(),i=e.invert(t.midPt);r(\\\"projection.rotation.lon\\\",-n[0]),r(\\\"center.lon\\\",i[0]),r(\\\"center.lat\\\",i[1])}return v.on(\\\"zoomstart\\\",function(){n.select(this).style(l),r=n.mouse(this),i=e.rotate(),a=e.translate(),o=i,s=y(r)}).on(\\\"zoom\\\",function(){if(h=n.mouse(this),function(t){var r=y(t);if(!r)return!0;var n=e(r);return Math.abs(n[0]-t[0])>m||Math.abs(n[1]-t[1])>m}(r))return v.scale(e.scale()),void v.translate(e.translate());e.scale(n.event.scale),e.translate([a[0],n.event.translate[1]]),s?y(h)&&(d=y(h),p=[o[0]+(d[0]-s[0]),i[1],i[2]],e.rotate(p),o=p):s=y(r=h),g=!0,t.render();var l=e.rotate(),c=e.invert(t.midPt);t.graphDiv.emit(\\\"plotly_relayouting\\\",{\\\"geo.projection.scale\\\":e.scale()/t.fitScale,\\\"geo.center.lon\\\":c[0],\\\"geo.center.lat\\\":c[1],\\\"geo.projection.rotation.lon\\\":-l[0]})}).on(\\\"zoomend\\\",function(){n.select(this).style(c),g&&f(t,e,x)}),v}function d(t,e){var r,i={r:e.rotate(),k:e.scale()},a=u(0,e),h=function(t){var e=0,r=arguments.length,i=[];for(;++e<r;)i.push(arguments[e]);var a=n.dispatch.apply(null,i);return a.of=function(e,r){return function(i){var o;try{o=i.sourceEvent=n.event,i.target=t,n.event=i,a[i.type].apply(e,r)}finally{n.event=o}}},a}(a,\\\"zoomstart\\\",\\\"zoom\\\",\\\"zoomend\\\"),p=0,d=a.on;function m(t){var r=e.rotate();t(\\\"projection.rotation.lon\\\",-r[0]),t(\\\"projection.rotation.lat\\\",-r[1])}return a.on(\\\"zoomstart\\\",function(){n.select(this).style(l);var t,c,u,f,m,b,_,w,k,T,A,M=n.mouse(this),S=e.rotate(),E=S,C=e.translate(),L=(c=.5*(t=S)[0]*o,u=.5*t[1]*o,f=.5*t[2]*o,m=Math.sin(c),b=Math.cos(c),_=Math.sin(u),w=Math.cos(u),k=Math.sin(f),T=Math.cos(f),[b*w*T+m*_*k,m*w*T-b*_*k,b*_*T+m*w*k,b*w*k-m*_*T]);r=g(e,M),d.call(a,\\\"zoom\\\",function(){var t,a,o,l,c,u,f,p,d,m,b=n.mouse(this);if(e.scale(i.k=n.event.scale),r){if(g(e,b)){e.rotate(S).translate(C);var _=g(e,b),w=function(t,e){if(!t||!e)return;var r=function(t,e){return[t[1]*e[2]-t[2]*e[1],t[2]*e[0]-t[0]*e[2],t[0]*e[1]-t[1]*e[0]]}(t,e),n=Math.sqrt(x(r,r)),i=.5*Math.acos(Math.max(-1,Math.min(1,x(t,e)))),a=Math.sin(i)/n;return n&&[Math.cos(i),r[2]*a,-r[1]*a,r[0]*a]}(r,_),k=function(t){return[Math.atan2(2*(t[0]*t[1]+t[2]*t[3]),1-2*(t[1]*t[1]+t[2]*t[2]))*s,Math.asin(Math.max(-1,Math.min(1,2*(t[0]*t[2]-t[3]*t[1]))))*s,Math.atan2(2*(t[0]*t[3]+t[1]*t[2]),1-2*(t[2]*t[2]+t[3]*t[3]))*s]}((a=w,o=(t=L)[0],l=t[1],c=t[2],u=t[3],f=a[0],p=a[1],d=a[2],m=a[3],[o*f-l*p-c*d-u*m,o*p+l*f+c*m-u*d,o*d-l*m+c*f+u*p,o*m+l*d-c*p+u*f])),T=i.r=function(t,e,r){var n=y(e,2,t[0]);n=y(n,1,t[1]),n=y(n,0,t[2]-r[2]);var i,a,o=e[0],l=e[1],c=e[2],u=n[0],f=n[1],h=n[2],p=Math.atan2(l,o)*s,d=Math.sqrt(o*o+l*l);Math.abs(f)>d?(a=(f>0?90:-90)-p,i=0):(a=Math.asin(f/d)*s-p,i=Math.sqrt(d*d-f*f));var g=180-a-2*p,m=(Math.atan2(h,u)-Math.atan2(c,i))*s,x=(Math.atan2(h,u)-Math.atan2(c,-i))*s,b=v(r[0],r[1],a,m),_=v(r[0],r[1],g,x);return b<=_?[a,m,r[2]]:[g,x,r[2]]}(k,r,E);isFinite(T[0])&&isFinite(T[1])&&isFinite(T[2])||(T=E),e.rotate(T),E=T}}else r=g(e,M=b);h.of(this,arguments)({type:\\\"zoom\\\"})}),A=h.of(this,arguments),p++||A({type:\\\"zoomstart\\\"})}).on(\\\"zoomend\\\",function(){var r;n.select(this).style(c),d.call(a,\\\"zoom\\\",null),r=h.of(this,arguments),--p||r({type:\\\"zoomend\\\"}),f(t,e,m)}).on(\\\"zoom.redraw\\\",function(){t.render();var r=e.rotate();t.graphDiv.emit(\\\"plotly_relayouting\\\",{\\\"geo.projection.scale\\\":e.scale()/t.fitScale,\\\"geo.projection.rotation.lon\\\":-r[0],\\\"geo.projection.rotation.lat\\\":-r[1]})}),n.rebind(a,h,\\\"on\\\")}function g(t,e){var r=t.invert(e);return r&&isFinite(r[0])&&isFinite(r[1])&&function(t){var e=t[0]*o,r=t[1]*o,n=Math.cos(r);return[n*Math.cos(e),n*Math.sin(e),Math.sin(r)]}(r)}function v(t,e,r,n){var i=m(r-t),a=m(n-e);return Math.sqrt(i*i+a*a)}function m(t){return(t%360+540)%360-180}function y(t,e,r){var n=r*o,i=t.slice(),a=0===e?1:0,s=2===e?1:2,l=Math.cos(n),c=Math.sin(n);return i[a]=t[a]*l-t[s]*c,i[s]=t[s]*l+t[a]*c,i}function x(t,e){for(var r=0,n=0,i=t.length;n<i;++n)r+=t[n]*e[n];return r}e.exports=function(t,e){var r=t.projection;return(e._isScoped?h:e._isClipped?d:p)(t,r)}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831,d3:157}],786:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../registry\\\"),i=t(\\\"./cartesian/constants\\\").SUBPLOT_PATTERN;r.getSubplotCalcData=function(t,e,r){var i=n.subplotsRegistry[e];if(!i)return[];for(var a=i.attr,o=[],s=0;s<t.length;s++){var l=t[s];l[0].trace[a]===r&&o.push(l)}return o},r.getModuleCalcData=function(t,e){var r,i=[],a=[];if(!(r=\\\"string\\\"==typeof e?n.getModule(e).plot:\\\"function\\\"==typeof e?e:e.plot))return[i,t];for(var o=0;o<t.length;o++){var s=t[o],l=s[0].trace;!0===l.visible&&0!==l._length&&(l._module.plot===r?i.push(s):a.push(s))}return[i,a]},r.getSubplotData=function(t,e,r){if(!n.subplotsRegistry[e])return[];var a,o,s,l=n.subplotsRegistry[e].attr,c=[];if(\\\"gl2d\\\"===e){var u=r.match(i);o=\\\"x\\\"+u[1],s=\\\"y\\\"+u[2]}for(var f=0;f<t.length;f++)a=t[f],\\\"gl2d\\\"===e&&n.traceIs(a,\\\"gl2d\\\")?a[l[0]]===o&&a[l[1]]===s&&c.push(a):a[l]===r&&c.push(a);return c}},{\\\"../registry\\\":831,\\\"./cartesian/constants\\\":757}],787:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"mouse-change\\\"),i=t(\\\"mouse-wheel\\\"),a=t(\\\"mouse-event-offset\\\"),o=t(\\\"../cartesian/constants\\\"),s=t(\\\"has-passive-events\\\");function l(t,e){this.element=t,this.plot=e,this.mouseListener=null,this.wheelListener=null,this.lastInputTime=Date.now(),this.lastPos=[0,0],this.boxEnabled=!1,this.boxInited=!1,this.boxStart=[0,0],this.boxEnd=[0,0],this.dragStart=[0,0]}e.exports=function(t){var e=t.mouseContainer,r=t.glplot,c=new l(e,r);function u(){t.xaxis.autorange=!1,t.yaxis.autorange=!1}function f(e,n,i){var a,s,l=t.calcDataBox(),f=r.viewBox,h=c.lastPos[0],p=c.lastPos[1],d=o.MINDRAG*r.pixelRatio,g=o.MINZOOM*r.pixelRatio;function v(e,r,n){var i=Math.min(r,n),a=Math.max(r,n);i!==a?(l[e]=i,l[e+2]=a,c.dataBox=l,t.setRanges(l)):(t.selectBox.selectBox=[0,0,1,1],t.glplot.setDirty())}switch(n*=r.pixelRatio,i*=r.pixelRatio,i=f[3]-f[1]-i,t.fullLayout.dragmode){case\\\"zoom\\\":if(e){var m=n/(f[2]-f[0])*(l[2]-l[0])+l[0],y=i/(f[3]-f[1])*(l[3]-l[1])+l[1];c.boxInited||(c.boxStart[0]=m,c.boxStart[1]=y,c.dragStart[0]=n,c.dragStart[1]=i),c.boxEnd[0]=m,c.boxEnd[1]=y,c.boxInited=!0,c.boxEnabled||c.boxStart[0]===c.boxEnd[0]&&c.boxStart[1]===c.boxEnd[1]||(c.boxEnabled=!0);var x=Math.abs(c.dragStart[0]-n)<g,b=Math.abs(c.dragStart[1]-i)<g;if(!function(){for(var e=t.graphDiv._fullLayout._axisConstraintGroups,r=t.xaxis._id,n=t.yaxis._id,i=0;i<e.length;i++)if(-1!==e[i][r]){if(-1!==e[i][n])return!0;break}return!1}()||x&&b)x&&(c.boxEnd[0]=c.boxStart[0]),b&&(c.boxEnd[1]=c.boxStart[1]);else{a=c.boxEnd[0]-c.boxStart[0],s=c.boxEnd[1]-c.boxStart[1];var _=(l[3]-l[1])/(l[2]-l[0]);Math.abs(a*_)>Math.abs(s)?(c.boxEnd[1]=c.boxStart[1]+Math.abs(a)*_*(s>=0?1:-1),c.boxEnd[1]<l[1]?(c.boxEnd[1]=l[1],c.boxEnd[0]=c.boxStart[0]+(l[1]-c.boxStart[1])/Math.abs(_)):c.boxEnd[1]>l[3]&&(c.boxEnd[1]=l[3],c.boxEnd[0]=c.boxStart[0]+(l[3]-c.boxStart[1])/Math.abs(_))):(c.boxEnd[0]=c.boxStart[0]+Math.abs(s)/_*(a>=0?1:-1),c.boxEnd[0]<l[0]?(c.boxEnd[0]=l[0],c.boxEnd[1]=c.boxStart[1]+(l[0]-c.boxStart[0])*Math.abs(_)):c.boxEnd[0]>l[2]&&(c.boxEnd[0]=l[2],c.boxEnd[1]=c.boxStart[1]+(l[2]-c.boxStart[0])*Math.abs(_)))}}else c.boxEnabled?(a=c.boxStart[0]!==c.boxEnd[0],s=c.boxStart[1]!==c.boxEnd[1],a||s?(a&&(v(0,c.boxStart[0],c.boxEnd[0]),t.xaxis.autorange=!1),s&&(v(1,c.boxStart[1],c.boxEnd[1]),t.yaxis.autorange=!1),t.relayoutCallback()):t.glplot.setDirty(),c.boxEnabled=!1,c.boxInited=!1):c.boxInited&&(c.boxInited=!1);break;case\\\"pan\\\":c.boxEnabled=!1,c.boxInited=!1,e?(c.panning||(c.dragStart[0]=n,c.dragStart[1]=i),Math.abs(c.dragStart[0]-n)<d&&(n=c.dragStart[0]),Math.abs(c.dragStart[1]-i)<d&&(i=c.dragStart[1]),a=(h-n)*(l[2]-l[0])/(r.viewBox[2]-r.viewBox[0]),s=(p-i)*(l[3]-l[1])/(r.viewBox[3]-r.viewBox[1]),l[0]+=a,l[2]+=a,l[1]+=s,l[3]+=s,t.setRanges(l),c.panning=!0,c.lastInputTime=Date.now(),u(),t.cameraChanged(),t.handleAnnotations()):c.panning&&(c.panning=!1,t.relayoutCallback())}c.lastPos[0]=n,c.lastPos[1]=i}return c.mouseListener=n(e,f),e.addEventListener(\\\"touchstart\\\",function(t){var r=a(t.changedTouches[0],e);f(0,r[0],r[1]),f(1,r[0],r[1]),t.preventDefault()},!!s&&{passive:!1}),e.addEventListener(\\\"touchmove\\\",function(t){t.preventDefault();var r=a(t.changedTouches[0],e);f(1,r[0],r[1]),t.preventDefault()},!!s&&{passive:!1}),e.addEventListener(\\\"touchend\\\",function(t){f(0,c.lastPos[0],c.lastPos[1]),t.preventDefault()},!!s&&{passive:!1}),c.wheelListener=i(e,function(e,n){if(!t.scrollZoom)return!1;var i=t.calcDataBox(),a=r.viewBox,o=c.lastPos[0],s=c.lastPos[1],l=Math.exp(5*n/(a[3]-a[1])),f=o/(a[2]-a[0])*(i[2]-i[0])+i[0],h=s/(a[3]-a[1])*(i[3]-i[1])+i[1];return i[0]=(i[0]-f)*l+f,i[2]=(i[2]-f)*l+f,i[1]=(i[1]-h)*l+h,i[3]=(i[3]-h)*l+h,t.setRanges(i),c.lastInputTime=Date.now(),u(),t.cameraChanged(),t.handleAnnotations(),t.relayoutCallback(),!0},!0),c}},{\\\"../cartesian/constants\\\":757,\\\"has-passive-events\\\":406,\\\"mouse-change\\\":430,\\\"mouse-event-offset\\\":431,\\\"mouse-wheel\\\":433}],788:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../cartesian/axes\\\"),i=t(\\\"../../lib/str2rgbarray\\\");function a(t){this.scene=t,this.gl=t.gl,this.pixelRatio=t.pixelRatio,this.screenBox=[0,0,1,1],this.viewBox=[0,0,1,1],this.dataBox=[-1,-1,1,1],this.borderLineEnable=[!1,!1,!1,!1],this.borderLineWidth=[1,1,1,1],this.borderLineColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.ticks=[[],[]],this.tickEnable=[!0,!0,!1,!1],this.tickPad=[15,15,15,15],this.tickAngle=[0,0,0,0],this.tickColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.tickMarkLength=[0,0,0,0],this.tickMarkWidth=[0,0,0,0],this.tickMarkColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.labels=[\\\"x\\\",\\\"y\\\"],this.labelEnable=[!0,!0,!1,!1],this.labelAngle=[0,Math.PI/2,0,3*Math.PI/2],this.labelPad=[15,15,15,15],this.labelSize=[12,12],this.labelFont=[\\\"sans-serif\\\",\\\"sans-serif\\\"],this.labelColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.title=\\\"\\\",this.titleEnable=!0,this.titleCenter=[0,0,0,0],this.titleAngle=0,this.titleColor=[0,0,0,1],this.titleFont=\\\"sans-serif\\\",this.titleSize=18,this.gridLineEnable=[!0,!0],this.gridLineColor=[[0,0,0,.5],[0,0,0,.5]],this.gridLineWidth=[1,1],this.zeroLineEnable=[!0,!0],this.zeroLineWidth=[1,1],this.zeroLineColor=[[0,0,0,1],[0,0,0,1]],this.borderColor=[0,0,0,0],this.backgroundColor=[0,0,0,0],this.static=this.scene.staticPlot}var o=a.prototype,s=[\\\"xaxis\\\",\\\"yaxis\\\"];o.merge=function(t){var e,r,n,a,o,l,c,u,f,h,p;for(this.titleEnable=!1,this.backgroundColor=i(t.plot_bgcolor),h=0;h<2;++h){var d=(e=s[h]).charAt(0);for(n=(r=t[this.scene[e]._name]).title.text===this.scene.fullLayout._dfltTitle[d]?\\\"\\\":r.title.text,p=0;p<=2;p+=2)this.labelEnable[h+p]=!1,this.labels[h+p]=n,this.labelColor[h+p]=i(r.title.font.color),this.labelFont[h+p]=r.title.font.family,this.labelSize[h+p]=r.title.font.size,this.labelPad[h+p]=this.getLabelPad(e,r),this.tickEnable[h+p]=!1,this.tickColor[h+p]=i((r.tickfont||{}).color),this.tickAngle[h+p]=\\\"auto\\\"===r.tickangle?0:Math.PI*-r.tickangle/180,this.tickPad[h+p]=this.getTickPad(r),this.tickMarkLength[h+p]=0,this.tickMarkWidth[h+p]=r.tickwidth||0,this.tickMarkColor[h+p]=i(r.tickcolor),this.borderLineEnable[h+p]=!1,this.borderLineColor[h+p]=i(r.linecolor),this.borderLineWidth[h+p]=r.linewidth||0;c=this.hasSharedAxis(r),o=this.hasAxisInDfltPos(e,r)&&!c,l=this.hasAxisInAltrPos(e,r)&&!c,a=r.mirror||!1,u=c?-1!==String(a).indexOf(\\\"all\\\"):!!a,f=c?\\\"allticks\\\"===a:-1!==String(a).indexOf(\\\"ticks\\\"),o?this.labelEnable[h]=!0:l&&(this.labelEnable[h+2]=!0),o?this.tickEnable[h]=r.showticklabels:l&&(this.tickEnable[h+2]=r.showticklabels),(o||u)&&(this.borderLineEnable[h]=r.showline),(l||u)&&(this.borderLineEnable[h+2]=r.showline),(o||f)&&(this.tickMarkLength[h]=this.getTickMarkLength(r)),(l||f)&&(this.tickMarkLength[h+2]=this.getTickMarkLength(r)),this.gridLineEnable[h]=r.showgrid,this.gridLineColor[h]=i(r.gridcolor),this.gridLineWidth[h]=r.gridwidth,this.zeroLineEnable[h]=r.zeroline,this.zeroLineColor[h]=i(r.zerolinecolor),this.zeroLineWidth[h]=r.zerolinewidth}},o.hasSharedAxis=function(t){var e=this.scene,r=e.fullLayout._subplots.gl2d;return 0!==n.findSubplotsWithAxis(r,t).indexOf(e.id)},o.hasAxisInDfltPos=function(t,e){var r=e.side;return\\\"xaxis\\\"===t?\\\"bottom\\\"===r:\\\"yaxis\\\"===t?\\\"left\\\"===r:void 0},o.hasAxisInAltrPos=function(t,e){var r=e.side;return\\\"xaxis\\\"===t?\\\"top\\\"===r:\\\"yaxis\\\"===t?\\\"right\\\"===r:void 0},o.getLabelPad=function(t,e){var r=e.title.font.size,n=e.showticklabels;return\\\"xaxis\\\"===t?\\\"top\\\"===e.side?r*(1.5+(n?1:0))-10:r*(1.5+(n?.5:0))-10:\\\"yaxis\\\"===t?\\\"right\\\"===e.side?10+r*(1.5+(n?1:.5)):10+r*(1.5+(n?.5:0)):void 0},o.getTickPad=function(t){return\\\"outside\\\"===t.ticks?10+t.ticklen:15},o.getTickMarkLength=function(t){if(!t.ticks)return 0;var e=t.ticklen;return\\\"inside\\\"===t.ticks?-e:e},e.exports=function(t){return new a(t)}},{\\\"../../lib/str2rgbarray\\\":726,\\\"../cartesian/axes\\\":751}],789:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plot_api/edit_types\\\").overrideAll,i=t(\\\"./scene2d\\\"),a=t(\\\"../layout_attributes\\\"),o=t(\\\"../../constants/xmlns_namespaces\\\"),s=t(\\\"../cartesian/constants\\\"),l=t(\\\"../cartesian\\\"),c=t(\\\"../../components/fx/layout_attributes\\\"),u=t(\\\"../get_data\\\").getSubplotData;r.name=\\\"gl2d\\\",r.attr=[\\\"xaxis\\\",\\\"yaxis\\\"],r.idRoot=[\\\"x\\\",\\\"y\\\"],r.idRegex=s.idRegex,r.attrRegex=s.attrRegex,r.attributes=t(\\\"../cartesian/attributes\\\"),r.supplyLayoutDefaults=function(t,e,r){e._has(\\\"cartesian\\\")||l.supplyLayoutDefaults(t,e,r)},r.layoutAttrOverrides=n(l.layoutAttributes,\\\"plot\\\",\\\"from-root\\\"),r.baseLayoutAttrOverrides=n({plot_bgcolor:a.plot_bgcolor,hoverlabel:c.hoverlabel},\\\"plot\\\",\\\"nested\\\"),r.plot=function(t){for(var e=t._fullLayout,r=t._fullData,n=e._subplots.gl2d,a=0;a<n.length;a++){var o=n[a],s=e._plots[o],l=u(r,\\\"gl2d\\\",o),c=s._scene2d;void 0===c&&(c=new i({id:o,graphDiv:t,container:t.querySelector(\\\".gl-container\\\"),staticPlot:t._context.staticPlot,plotGlPixelRatio:t._context.plotGlPixelRatio},e),s._scene2d=c),c.plot(l,t.calcdata,e,t.layout)}},r.clean=function(t,e,r,n){for(var i=n._subplots.gl2d||[],a=0;a<i.length;a++){var o=i[a],s=n._plots[o];if(s._scene2d)0===u(t,\\\"gl2d\\\",o).length&&(s._scene2d.destroy(),delete n._plots[o])}l.clean.apply(this,arguments)},r.drawFramework=function(t){t._context.staticPlot||l.drawFramework(t)},r.toSVG=function(t){for(var e=t._fullLayout,r=e._subplots.gl2d,n=0;n<r.length;n++){var i=e._plots[r[n]]._scene2d,a=i.toImage(\\\"png\\\");e._glimages.append(\\\"svg:image\\\").attr({xmlns:o.svg,\\\"xlink:href\\\":a,x:0,y:0,width:\\\"100%\\\",height:\\\"100%\\\",preserveAspectRatio:\\\"none\\\"}),i.destroy()}},r.updateFx=function(t){for(var e=t._fullLayout,r=e._subplots.gl2d,n=0;n<r.length;n++){e._plots[r[n]]._scene2d.updateFx(e.dragmode)}}},{\\\"../../components/fx/layout_attributes\\\":620,\\\"../../constants/xmlns_namespaces\\\":681,\\\"../../plot_api/edit_types\\\":734,\\\"../cartesian\\\":762,\\\"../cartesian/attributes\\\":749,\\\"../cartesian/constants\\\":757,\\\"../get_data\\\":786,\\\"../layout_attributes\\\":803,\\\"./scene2d\\\":790}],790:[function(t,e,r){\\\"use strict\\\";var n,i,a=t(\\\"../../registry\\\"),o=t(\\\"../../plots/cartesian/axes\\\"),s=t(\\\"../../components/fx\\\"),l=t(\\\"gl-plot2d\\\"),c=t(\\\"gl-spikes2d\\\"),u=t(\\\"gl-select-box\\\"),f=t(\\\"webgl-context\\\"),h=t(\\\"./convert\\\"),p=t(\\\"./camera\\\"),d=t(\\\"../../lib/show_no_webgl_msg\\\"),g=t(\\\"../cartesian/constraints\\\"),v=g.enforce,m=g.clean,y=t(\\\"../cartesian/autorange\\\").doAutoRange,x=[\\\"xaxis\\\",\\\"yaxis\\\"],b=t(\\\"../cartesian/constants\\\").SUBPLOT_PATTERN;function _(t,e){this.container=t.container,this.graphDiv=t.graphDiv,this.pixelRatio=t.plotGlPixelRatio||window.devicePixelRatio,this.id=t.id,this.staticPlot=!!t.staticPlot,this.scrollZoom=this.graphDiv._context._scrollZoom.cartesian,this.fullData=null,this.updateRefs(e),this.makeFramework(),this.stopped||(this.glplotOptions=h(this),this.glplotOptions.merge(e),this.glplot=l(this.glplotOptions),this.camera=p(this),this.traces={},this.spikes=c(this.glplot),this.selectBox=u(this.glplot,{innerFill:!1,outerFill:!0}),this.lastButtonState=0,this.pickResult=null,this.isMouseOver=!0,this.stopped=!1,this.redraw=this.draw.bind(this),this.redraw())}e.exports=_;var w=_.prototype;w.makeFramework=function(){if(this.staticPlot){if(!(i||(n=document.createElement(\\\"canvas\\\"),i=f({canvas:n,preserveDrawingBuffer:!1,premultipliedAlpha:!0,antialias:!0}))))throw new Error(\\\"Error creating static canvas/context for image server\\\");this.canvas=n,this.gl=i}else{var t=this.container.querySelector(\\\".gl-canvas-focus\\\"),e=f({canvas:t,preserveDrawingBuffer:!0,premultipliedAlpha:!0});if(!e)return d(this),void(this.stopped=!0);this.canvas=t,this.gl=e}var r=this.canvas;r.style.width=\\\"100%\\\",r.style.height=\\\"100%\\\",r.style.position=\\\"absolute\\\",r.style.top=\\\"0px\\\",r.style.left=\\\"0px\\\",r.style[\\\"pointer-events\\\"]=\\\"none\\\",this.updateSize(r),r.className+=\\\" user-select-none\\\";var a=this.svgContainer=document.createElementNS(\\\"http://www.w3.org/2000/svg\\\",\\\"svg\\\");a.style.position=\\\"absolute\\\",a.style.top=a.style.left=\\\"0px\\\",a.style.width=a.style.height=\\\"100%\\\",a.style[\\\"z-index\\\"]=20,a.style[\\\"pointer-events\\\"]=\\\"none\\\";var o=this.mouseContainer=document.createElement(\\\"div\\\");o.style.position=\\\"absolute\\\",o.style[\\\"pointer-events\\\"]=\\\"auto\\\",this.pickCanvas=this.container.querySelector(\\\".gl-canvas-pick\\\");var s=this.container;s.appendChild(a),s.appendChild(o);var l=this;o.addEventListener(\\\"mouseout\\\",function(){l.isMouseOver=!1,l.unhover()}),o.addEventListener(\\\"mouseover\\\",function(){l.isMouseOver=!0})},w.toImage=function(t){t||(t=\\\"png\\\"),this.stopped=!0,this.staticPlot&&this.container.appendChild(n),this.updateSize(this.canvas);var e=this.glplot.gl,r=e.drawingBufferWidth,i=e.drawingBufferHeight;e.clearColor(1,1,1,0),e.clear(e.COLOR_BUFFER_BIT|e.DEPTH_BUFFER_BIT),this.glplot.setDirty(),this.glplot.draw(),e.bindFramebuffer(e.FRAMEBUFFER,null);var a=new Uint8Array(r*i*4);e.readPixels(0,0,r,i,e.RGBA,e.UNSIGNED_BYTE,a);for(var o=0,s=i-1;o<s;++o,--s)for(var l=0;l<r;++l)for(var c=0;c<4;++c){var u=a[4*(r*o+l)+c];a[4*(r*o+l)+c]=a[4*(r*s+l)+c],a[4*(r*s+l)+c]=u}var f=document.createElement(\\\"canvas\\\");f.width=r,f.height=i;var h,p=f.getContext(\\\"2d\\\"),d=p.createImageData(r,i);switch(d.data.set(a),p.putImageData(d,0,0),t){case\\\"jpeg\\\":h=f.toDataURL(\\\"image/jpeg\\\");break;case\\\"webp\\\":h=f.toDataURL(\\\"image/webp\\\");break;default:h=f.toDataURL(\\\"image/png\\\")}return this.staticPlot&&this.container.removeChild(n),h},w.updateSize=function(t){t||(t=this.canvas);var e=this.pixelRatio,r=this.fullLayout,n=r.width,i=r.height,a=0|Math.ceil(e*n),o=0|Math.ceil(e*i);return t.width===a&&t.height===o||(t.width=a,t.height=o),t},w.computeTickMarks=function(){this.xaxis.setScale(),this.yaxis.setScale();for(var t=[o.calcTicks(this.xaxis),o.calcTicks(this.yaxis)],e=0;e<2;++e)for(var r=0;r<t[e].length;++r)t[e][r].text=t[e][r].text+\\\"\\\";return t},w.updateRefs=function(t){this.fullLayout=t;var e=this.id.match(b),r=\\\"xaxis\\\"+e[1],n=\\\"yaxis\\\"+e[2];this.xaxis=this.fullLayout[r],this.yaxis=this.fullLayout[n]},w.relayoutCallback=function(){var t=this.graphDiv,e=this.xaxis,r=this.yaxis,n=t.layout,i={},o=i[e._name+\\\".range\\\"]=e.range.slice(),s=i[r._name+\\\".range\\\"]=r.range.slice();i[e._name+\\\".autorange\\\"]=e.autorange,i[r._name+\\\".autorange\\\"]=r.autorange,a.call(\\\"_storeDirectGUIEdit\\\",t.layout,t._fullLayout._preGUI,i);var l=n[e._name];l.range=o,l.autorange=e.autorange;var c=n[r._name];c.range=s,c.autorange=r.autorange,i.lastInputTime=this.camera.lastInputTime,t.emit(\\\"plotly_relayout\\\",i)},w.cameraChanged=function(){var t=this.camera;this.glplot.setDataBox(this.calcDataBox());var e=this.computeTickMarks();(function(t,e){for(var r=0;r<2;++r){var n=t[r],i=e[r];if(n.length!==i.length)return!0;for(var a=0;a<n.length;++a)if(n[a].x!==i[a].x)return!0}return!1})(e,this.glplotOptions.ticks)&&(this.glplotOptions.ticks=e,this.glplotOptions.dataBox=t.dataBox,this.glplot.update(this.glplotOptions),this.handleAnnotations())},w.handleAnnotations=function(){for(var t=this.graphDiv,e=this.fullLayout.annotations,r=0;r<e.length;r++){var n=e[r];n.xref===this.xaxis._id&&n.yref===this.yaxis._id&&a.getComponentMethod(\\\"annotations\\\",\\\"drawOne\\\")(t,r)}},w.destroy=function(){if(this.glplot){var t=this.traces;t&&Object.keys(t).map(function(e){t[e].dispose(),delete t[e]}),this.glplot.dispose(),this.container.removeChild(this.svgContainer),this.container.removeChild(this.mouseContainer),this.fullData=null,this.glplot=null,this.stopped=!0,this.camera.mouseListener.enabled=!1,this.mouseContainer.removeEventListener(\\\"wheel\\\",this.camera.wheelListener),this.camera=null}},w.plot=function(t,e,r){var n=this.glplot;this.updateRefs(r),this.xaxis.clearCalc(),this.yaxis.clearCalc(),this.updateTraces(t,e),this.updateFx(r.dragmode);var i=r.width,a=r.height;this.updateSize(this.canvas);var o=this.glplotOptions;o.merge(r),o.screenBox=[0,0,i,a];var s={_fullLayout:{_axisConstraintGroups:this.graphDiv._fullLayout._axisConstraintGroups,xaxis:this.xaxis,yaxis:this.yaxis}};m(s,this.xaxis),m(s,this.yaxis);var l,c,u=r._size,f=this.xaxis.domain,h=this.yaxis.domain;for(o.viewBox=[u.l+f[0]*u.w,u.b+h[0]*u.h,i-u.r-(1-f[1])*u.w,a-u.t-(1-h[1])*u.h],this.mouseContainer.style.width=u.w*(f[1]-f[0])+\\\"px\\\",this.mouseContainer.style.height=u.h*(h[1]-h[0])+\\\"px\\\",this.mouseContainer.height=u.h*(h[1]-h[0]),this.mouseContainer.style.left=u.l+f[0]*u.w+\\\"px\\\",this.mouseContainer.style.top=u.t+(1-h[1])*u.h+\\\"px\\\",c=0;c<2;++c)(l=this[x[c]])._length=o.viewBox[c+2]-o.viewBox[c],y(this.graphDiv,l),l.setScale();v(s),o.ticks=this.computeTickMarks(),o.dataBox=this.calcDataBox(),o.merge(r),n.update(o),this.glplot.draw()},w.calcDataBox=function(){var t=this.xaxis,e=this.yaxis,r=t.range,n=e.range,i=t.r2l,a=e.r2l;return[i(r[0]),a(n[0]),i(r[1]),a(n[1])]},w.setRanges=function(t){var e=this.xaxis,r=this.yaxis,n=e.l2r,i=r.l2r;e.range=[n(t[0]),n(t[2])],r.range=[i(t[1]),i(t[3])]},w.updateTraces=function(t,e){var r,n,i,a=Object.keys(this.traces);this.fullData=t;t:for(r=0;r<a.length;r++){var o=a[r],s=this.traces[o];for(n=0;n<t.length;n++)if((i=t[n]).uid===o&&i.type===s.type)continue t;s.dispose(),delete this.traces[o]}for(r=0;r<t.length;r++){i=t[r];var l=e[r],c=this.traces[i.uid];c?c.update(i,l):(c=i._module.plot(this,i,l),this.traces[i.uid]=c)}this.glplot.objects.sort(function(t,e){return t._trace.index-e._trace.index})},w.updateFx=function(t){\\\"lasso\\\"===t||\\\"select\\\"===t?(this.pickCanvas.style[\\\"pointer-events\\\"]=\\\"none\\\",this.mouseContainer.style[\\\"pointer-events\\\"]=\\\"none\\\"):(this.pickCanvas.style[\\\"pointer-events\\\"]=\\\"auto\\\",this.mouseContainer.style[\\\"pointer-events\\\"]=\\\"auto\\\"),this.mouseContainer.style.cursor=\\\"pan\\\"===t?\\\"move\\\":\\\"zoom\\\"===t?\\\"crosshair\\\":null},w.emitPointAction=function(t,e){for(var r,n=t.trace.uid,i=t.pointIndex,a=0;a<this.fullData.length;a++)this.fullData[a].uid===n&&(r=this.fullData[a]);var o={x:t.traceCoord[0],y:t.traceCoord[1],curveNumber:r.index,pointNumber:i,data:r._input,fullData:this.fullData,xaxis:this.xaxis,yaxis:this.yaxis};s.appendArrayPointValue(o,r,i),this.graphDiv.emit(e,{points:[o]})},w.draw=function(){if(!this.stopped){requestAnimationFrame(this.redraw);var t=this.glplot,e=this.camera,r=e.mouseListener,n=1===this.lastButtonState&&0===r.buttons,i=this.fullLayout;this.lastButtonState=r.buttons,this.cameraChanged();var a,o=r.x*t.pixelRatio,l=this.canvas.height-t.pixelRatio*r.y;if(e.boxEnabled&&\\\"zoom\\\"===i.dragmode){this.selectBox.enabled=!0;for(var c=this.selectBox.selectBox=[Math.min(e.boxStart[0],e.boxEnd[0]),Math.min(e.boxStart[1],e.boxEnd[1]),Math.max(e.boxStart[0],e.boxEnd[0]),Math.max(e.boxStart[1],e.boxEnd[1])],u=0;u<2;u++)e.boxStart[u]===e.boxEnd[u]&&(c[u]=t.dataBox[u],c[u+2]=t.dataBox[u+2]);t.setDirty()}else if(!e.panning&&this.isMouseOver){this.selectBox.enabled=!1;var f=i._size,h=this.xaxis.domain,p=this.yaxis.domain,d=(a=t.pick(o/t.pixelRatio+f.l+h[0]*f.w,l/t.pixelRatio-(f.t+(1-p[1])*f.h)))&&a.object._trace.handlePick(a);if(d&&n&&this.emitPointAction(d,\\\"plotly_click\\\"),a&&\\\"skip\\\"!==a.object._trace.hoverinfo&&i.hovermode&&d&&(!this.lastPickResult||this.lastPickResult.traceUid!==d.trace.uid||this.lastPickResult.dataCoord[0]!==d.dataCoord[0]||this.lastPickResult.dataCoord[1]!==d.dataCoord[1])){var g=d;this.lastPickResult={traceUid:d.trace?d.trace.uid:null,dataCoord:d.dataCoord.slice()},this.spikes.update({center:a.dataCoord}),g.screenCoord=[((t.viewBox[2]-t.viewBox[0])*(a.dataCoord[0]-t.dataBox[0])/(t.dataBox[2]-t.dataBox[0])+t.viewBox[0])/t.pixelRatio,(this.canvas.height-(t.viewBox[3]-t.viewBox[1])*(a.dataCoord[1]-t.dataBox[1])/(t.dataBox[3]-t.dataBox[1])-t.viewBox[1])/t.pixelRatio],this.emitPointAction(d,\\\"plotly_hover\\\");var v=this.fullData[g.trace.index]||{},m=g.pointIndex,y=s.castHoverinfo(v,i,m);if(y&&\\\"all\\\"!==y){var x=y.split(\\\"+\\\");-1===x.indexOf(\\\"x\\\")&&(g.traceCoord[0]=void 0),-1===x.indexOf(\\\"y\\\")&&(g.traceCoord[1]=void 0),-1===x.indexOf(\\\"z\\\")&&(g.traceCoord[2]=void 0),-1===x.indexOf(\\\"text\\\")&&(g.textLabel=void 0),-1===x.indexOf(\\\"name\\\")&&(g.name=void 0)}s.loneHover({x:g.screenCoord[0],y:g.screenCoord[1],xLabel:this.hoverFormatter(\\\"xaxis\\\",g.traceCoord[0]),yLabel:this.hoverFormatter(\\\"yaxis\\\",g.traceCoord[1]),zLabel:g.traceCoord[2],text:g.textLabel,name:g.name,color:s.castHoverOption(v,m,\\\"bgcolor\\\")||g.color,borderColor:s.castHoverOption(v,m,\\\"bordercolor\\\"),fontFamily:s.castHoverOption(v,m,\\\"font.family\\\"),fontSize:s.castHoverOption(v,m,\\\"font.size\\\"),fontColor:s.castHoverOption(v,m,\\\"font.color\\\"),nameLength:s.castHoverOption(v,m,\\\"namelength\\\"),textAlign:s.castHoverOption(v,m,\\\"align\\\")},{container:this.svgContainer,gd:this.graphDiv})}}a||this.unhover(),t.draw()}},w.unhover=function(){this.lastPickResult&&(this.spikes.update({}),this.lastPickResult=null,this.graphDiv.emit(\\\"plotly_unhover\\\"),s.loneUnhover(this.svgContainer))},w.hoverFormatter=function(t,e){if(void 0!==e){var r=this[t];return o.tickText(r,r.c2l(e),\\\"hover\\\").text}}},{\\\"../../components/fx\\\":619,\\\"../../lib/show_no_webgl_msg\\\":724,\\\"../../plots/cartesian/axes\\\":751,\\\"../../registry\\\":831,\\\"../cartesian/autorange\\\":750,\\\"../cartesian/constants\\\":757,\\\"../cartesian/constraints\\\":758,\\\"./camera\\\":787,\\\"./convert\\\":788,\\\"gl-plot2d\\\":286,\\\"gl-select-box\\\":298,\\\"gl-spikes2d\\\":307,\\\"webgl-context\\\":543}],791:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plot_api/edit_types\\\").overrideAll,i=t(\\\"../../components/fx/layout_attributes\\\"),a=t(\\\"./scene\\\"),o=t(\\\"../get_data\\\").getSubplotData,s=t(\\\"../../lib\\\"),l=t(\\\"../../constants/xmlns_namespaces\\\");r.name=\\\"gl3d\\\",r.attr=\\\"scene\\\",r.idRoot=\\\"scene\\\",r.idRegex=r.attrRegex=s.counterRegex(\\\"scene\\\"),r.attributes=t(\\\"./layout/attributes\\\"),r.layoutAttributes=t(\\\"./layout/layout_attributes\\\"),r.baseLayoutAttrOverrides=n({hoverlabel:i.hoverlabel},\\\"plot\\\",\\\"nested\\\"),r.supplyLayoutDefaults=t(\\\"./layout/defaults\\\"),r.plot=function(t){for(var e=t._fullLayout,r=t._fullData,n=e._subplots.gl3d,i=0;i<n.length;i++){var s=n[i],l=o(r,\\\"gl3d\\\",s),c=e[s],u=c.camera,f=c._scene;f||(f=new a({id:s,graphDiv:t,container:t.querySelector(\\\".gl-container\\\"),staticPlot:t._context.staticPlot,plotGlPixelRatio:t._context.plotGlPixelRatio,camera:u},e),c._scene=f),f.viewInitial||(f.viewInitial={up:{x:u.up.x,y:u.up.y,z:u.up.z},eye:{x:u.eye.x,y:u.eye.y,z:u.eye.z},center:{x:u.center.x,y:u.center.y,z:u.center.z}}),f.plot(l,e,t.layout)}},r.clean=function(t,e,r,n){for(var i=n._subplots.gl3d||[],a=0;a<i.length;a++){var o=i[a];!e[o]&&n[o]._scene&&(n[o]._scene.destroy(),n._infolayer&&n._infolayer.selectAll(\\\".annotation-\\\"+o).remove())}},r.toSVG=function(t){for(var e=t._fullLayout,r=e._subplots.gl3d,n=e._size,i=0;i<r.length;i++){var a=e[r[i]],o=a.domain,s=a._scene,c=s.toImage(\\\"png\\\");e._glimages.append(\\\"svg:image\\\").attr({xmlns:l.svg,\\\"xlink:href\\\":c,x:n.l+n.w*o.x[0],y:n.t+n.h*(1-o.y[1]),width:n.w*(o.x[1]-o.x[0]),height:n.h*(o.y[1]-o.y[0]),preserveAspectRatio:\\\"none\\\"}),s.destroy()}},r.cleanId=function(t){if(t.match(/^scene[0-9]*$/)){var e=t.substr(5);return\\\"1\\\"===e&&(e=\\\"\\\"),\\\"scene\\\"+e}},r.updateFx=function(t){for(var e=t._fullLayout,r=e._subplots.gl3d,n=0;n<r.length;n++){e[r[n]]._scene.updateFx(e.dragmode,e.hovermode)}}},{\\\"../../components/fx/layout_attributes\\\":620,\\\"../../constants/xmlns_namespaces\\\":681,\\\"../../lib\\\":703,\\\"../../plot_api/edit_types\\\":734,\\\"../get_data\\\":786,\\\"./layout/attributes\\\":792,\\\"./layout/defaults\\\":796,\\\"./layout/layout_attributes\\\":797,\\\"./scene\\\":801}],792:[function(t,e,r){\\\"use strict\\\";e.exports={scene:{valType:\\\"subplotid\\\",dflt:\\\"scene\\\",editType:\\\"calc+clearAxisTypes\\\"}}},{}],793:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../../components/color\\\"),i=t(\\\"../../cartesian/layout_attributes\\\"),a=t(\\\"../../../lib/extend\\\").extendFlat,o=t(\\\"../../../plot_api/edit_types\\\").overrideAll;e.exports=o({visible:i.visible,showspikes:{valType:\\\"boolean\\\",dflt:!0},spikesides:{valType:\\\"boolean\\\",dflt:!0},spikethickness:{valType:\\\"number\\\",min:0,dflt:2},spikecolor:{valType:\\\"color\\\",dflt:n.defaultLine},showbackground:{valType:\\\"boolean\\\",dflt:!1},backgroundcolor:{valType:\\\"color\\\",dflt:\\\"rgba(204, 204, 204, 0.5)\\\"},showaxeslabels:{valType:\\\"boolean\\\",dflt:!0},color:i.color,categoryorder:i.categoryorder,categoryarray:i.categoryarray,title:i.title,type:a({},i.type,{values:[\\\"-\\\",\\\"linear\\\",\\\"log\\\",\\\"date\\\",\\\"category\\\"]}),autorange:i.autorange,rangemode:i.rangemode,range:a({},i.range,{items:[{valType:\\\"any\\\",editType:\\\"plot\\\",impliedEdits:{\\\"^autorange\\\":!1}},{valType:\\\"any\\\",editType:\\\"plot\\\",impliedEdits:{\\\"^autorange\\\":!1}}],anim:!1}),tickmode:i.tickmode,nticks:i.nticks,tick0:i.tick0,dtick:i.dtick,tickvals:i.tickvals,ticktext:i.ticktext,ticks:i.ticks,mirror:i.mirror,ticklen:i.ticklen,tickwidth:i.tickwidth,tickcolor:i.tickcolor,showticklabels:i.showticklabels,tickfont:i.tickfont,tickangle:i.tickangle,tickprefix:i.tickprefix,showtickprefix:i.showtickprefix,ticksuffix:i.ticksuffix,showticksuffix:i.showticksuffix,showexponent:i.showexponent,exponentformat:i.exponentformat,separatethousands:i.separatethousands,tickformat:i.tickformat,tickformatstops:i.tickformatstops,hoverformat:i.hoverformat,showline:i.showline,linecolor:i.linecolor,linewidth:i.linewidth,showgrid:i.showgrid,gridcolor:a({},i.gridcolor,{dflt:\\\"rgb(204, 204, 204)\\\"}),gridwidth:i.gridwidth,zeroline:i.zeroline,zerolinecolor:i.zerolinecolor,zerolinewidth:i.zerolinewidth,_deprecated:{title:i._deprecated.title,titlefont:i._deprecated.titlefont}},\\\"plot\\\",\\\"from-root\\\")},{\\\"../../../components/color\\\":580,\\\"../../../lib/extend\\\":693,\\\"../../../plot_api/edit_types\\\":734,\\\"../../cartesian/layout_attributes\\\":763}],794:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"tinycolor2\\\").mix,i=t(\\\"../../../lib\\\"),a=t(\\\"../../../plot_api/plot_template\\\"),o=t(\\\"./axis_attributes\\\"),s=t(\\\"../../cartesian/type_defaults\\\"),l=t(\\\"../../cartesian/axis_defaults\\\"),c=[\\\"xaxis\\\",\\\"yaxis\\\",\\\"zaxis\\\"];e.exports=function(t,e,r){var u,f;function h(t,e){return i.coerce(u,f,o,t,e)}for(var p=0;p<c.length;p++){var d=c[p];u=t[d]||{},(f=a.newContainer(e,d))._id=d[0]+r.scene,f._name=d,s(u,f,h,r),l(u,f,h,{font:r.font,letter:d[0],data:r.data,showGrid:!0,noTickson:!0,bgColor:r.bgColor,calendar:r.calendar},r.fullLayout),h(\\\"gridcolor\\\",n(f.color,r.bgColor,13600/187).toRgbString()),h(\\\"title.text\\\",d[0]),f.setScale=i.noop,h(\\\"showspikes\\\")&&(h(\\\"spikesides\\\"),h(\\\"spikethickness\\\"),h(\\\"spikecolor\\\",f.color)),h(\\\"showaxeslabels\\\"),h(\\\"showbackground\\\")&&h(\\\"backgroundcolor\\\")}}},{\\\"../../../lib\\\":703,\\\"../../../plot_api/plot_template\\\":741,\\\"../../cartesian/axis_defaults\\\":753,\\\"../../cartesian/type_defaults\\\":774,\\\"./axis_attributes\\\":793,tinycolor2:524}],795:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../../lib/str2rgbarray\\\"),i=t(\\\"../../../lib\\\"),a=[\\\"xaxis\\\",\\\"yaxis\\\",\\\"zaxis\\\"];function o(){this.bounds=[[-10,-10,-10],[10,10,10]],this.ticks=[[],[],[]],this.tickEnable=[!0,!0,!0],this.tickFont=[\\\"sans-serif\\\",\\\"sans-serif\\\",\\\"sans-serif\\\"],this.tickSize=[12,12,12],this.tickAngle=[0,0,0],this.tickColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.tickPad=[18,18,18],this.labels=[\\\"x\\\",\\\"y\\\",\\\"z\\\"],this.labelEnable=[!0,!0,!0],this.labelFont=[\\\"Open Sans\\\",\\\"Open Sans\\\",\\\"Open Sans\\\"],this.labelSize=[20,20,20],this.labelColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.labelPad=[30,30,30],this.lineEnable=[!0,!0,!0],this.lineMirror=[!1,!1,!1],this.lineWidth=[1,1,1],this.lineColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.lineTickEnable=[!0,!0,!0],this.lineTickMirror=[!1,!1,!1],this.lineTickLength=[10,10,10],this.lineTickWidth=[1,1,1],this.lineTickColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.gridEnable=[!0,!0,!0],this.gridWidth=[1,1,1],this.gridColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.zeroEnable=[!0,!0,!0],this.zeroLineColor=[[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.zeroLineWidth=[2,2,2],this.backgroundEnable=[!0,!0,!0],this.backgroundColor=[[.8,.8,.8,.5],[.8,.8,.8,.5],[.8,.8,.8,.5]],this._defaultTickPad=this.tickPad.slice(),this._defaultLabelPad=this.labelPad.slice(),this._defaultLineTickLength=this.lineTickLength.slice()}o.prototype.merge=function(t,e){for(var r=0;r<3;++r){var o=e[a[r]];o.visible?(this.labels[r]=t._meta?i.templateString(o.title.text,t._meta):o.title.text,\\\"font\\\"in o.title&&(o.title.font.color&&(this.labelColor[r]=n(o.title.font.color)),o.title.font.family&&(this.labelFont[r]=o.title.font.family),o.title.font.size&&(this.labelSize[r]=o.title.font.size)),\\\"showline\\\"in o&&(this.lineEnable[r]=o.showline),\\\"linecolor\\\"in o&&(this.lineColor[r]=n(o.linecolor)),\\\"linewidth\\\"in o&&(this.lineWidth[r]=o.linewidth),\\\"showgrid\\\"in o&&(this.gridEnable[r]=o.showgrid),\\\"gridcolor\\\"in o&&(this.gridColor[r]=n(o.gridcolor)),\\\"gridwidth\\\"in o&&(this.gridWidth[r]=o.gridwidth),\\\"log\\\"===o.type?this.zeroEnable[r]=!1:\\\"zeroline\\\"in o&&(this.zeroEnable[r]=o.zeroline),\\\"zerolinecolor\\\"in o&&(this.zeroLineColor[r]=n(o.zerolinecolor)),\\\"zerolinewidth\\\"in o&&(this.zeroLineWidth[r]=o.zerolinewidth),\\\"ticks\\\"in o&&o.ticks?this.lineTickEnable[r]=!0:this.lineTickEnable[r]=!1,\\\"ticklen\\\"in o&&(this.lineTickLength[r]=this._defaultLineTickLength[r]=o.ticklen),\\\"tickcolor\\\"in o&&(this.lineTickColor[r]=n(o.tickcolor)),\\\"tickwidth\\\"in o&&(this.lineTickWidth[r]=o.tickwidth),\\\"tickangle\\\"in o&&(this.tickAngle[r]=\\\"auto\\\"===o.tickangle?-3600:Math.PI*-o.tickangle/180),\\\"showticklabels\\\"in o&&(this.tickEnable[r]=o.showticklabels),\\\"tickfont\\\"in o&&(o.tickfont.color&&(this.tickColor[r]=n(o.tickfont.color)),o.tickfont.family&&(this.tickFont[r]=o.tickfont.family),o.tickfont.size&&(this.tickSize[r]=o.tickfont.size)),\\\"mirror\\\"in o?-1!==[\\\"ticks\\\",\\\"all\\\",\\\"allticks\\\"].indexOf(o.mirror)?(this.lineTickMirror[r]=!0,this.lineMirror[r]=!0):!0===o.mirror?(this.lineTickMirror[r]=!1,this.lineMirror[r]=!0):(this.lineTickMirror[r]=!1,this.lineMirror[r]=!1):this.lineMirror[r]=!1,\\\"showbackground\\\"in o&&!1!==o.showbackground?(this.backgroundEnable[r]=!0,this.backgroundColor[r]=n(o.backgroundcolor)):this.backgroundEnable[r]=!1):(this.tickEnable[r]=!1,this.labelEnable[r]=!1,this.lineEnable[r]=!1,this.lineTickEnable[r]=!1,this.gridEnable[r]=!1,this.zeroEnable[r]=!1,this.backgroundEnable[r]=!1)}},e.exports=function(t,e){var r=new o;return r.merge(t,e),r}},{\\\"../../../lib\\\":703,\\\"../../../lib/str2rgbarray\\\":726}],796:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../../lib\\\"),i=t(\\\"../../../components/color\\\"),a=t(\\\"../../../registry\\\"),o=t(\\\"../../subplot_defaults\\\"),s=t(\\\"./axis_defaults\\\"),l=t(\\\"./layout_attributes\\\"),c=t(\\\"../../get_data\\\").getSubplotData,u=\\\"gl3d\\\";function f(t,e,r,n){for(var o=r(\\\"bgcolor\\\"),l=i.combine(o,n.paper_bgcolor),f=[\\\"up\\\",\\\"center\\\",\\\"eye\\\"],h=0;h<f.length;h++)r(\\\"camera.\\\"+f[h]+\\\".x\\\"),r(\\\"camera.\\\"+f[h]+\\\".y\\\"),r(\\\"camera.\\\"+f[h]+\\\".z\\\");r(\\\"camera.projection.type\\\");var p=!!r(\\\"aspectratio.x\\\")&&!!r(\\\"aspectratio.y\\\")&&!!r(\\\"aspectratio.z\\\"),d=r(\\\"aspectmode\\\",p?\\\"manual\\\":\\\"auto\\\");p||(t.aspectratio=e.aspectratio={x:1,y:1,z:1},\\\"manual\\\"===d&&(e.aspectmode=\\\"auto\\\"),t.aspectmode=e.aspectmode);var g=c(n.fullData,u,n.id);s(t,e,{font:n.font,scene:n.id,data:g,bgColor:l,calendar:n.calendar,fullLayout:n.fullLayout}),a.getComponentMethod(\\\"annotations3d\\\",\\\"handleDefaults\\\")(t,e,n);var v=n.getDfltFromLayout(\\\"dragmode\\\");if(!1!==v&&!v)if(v=\\\"orbit\\\",t.camera&&t.camera.up){var m=t.camera.up.x,y=t.camera.up.y,x=t.camera.up.z;0!==x&&(m&&y&&x?x/Math.sqrt(m*m+y*y+x*x)>.999&&(v=\\\"turntable\\\"):v=\\\"turntable\\\")}else v=\\\"turntable\\\";r(\\\"dragmode\\\",v),r(\\\"hovermode\\\",n.getDfltFromLayout(\\\"hovermode\\\"))}e.exports=function(t,e,r){var i=e._basePlotModules.length>1;o(t,e,r,{type:u,attributes:l,handleDefaults:f,fullLayout:e,font:e.font,fullData:r,getDfltFromLayout:function(e){if(!i)return n.validate(t[e],l[e])?t[e]:void 0},paper_bgcolor:e.paper_bgcolor,calendar:e.calendar})}},{\\\"../../../components/color\\\":580,\\\"../../../lib\\\":703,\\\"../../../registry\\\":831,\\\"../../get_data\\\":786,\\\"../../subplot_defaults\\\":826,\\\"./axis_defaults\\\":794,\\\"./layout_attributes\\\":797}],797:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./axis_attributes\\\"),i=t(\\\"../../domain\\\").attributes,a=t(\\\"../../../lib/extend\\\").extendFlat,o=t(\\\"../../../lib\\\").counterRegex;function s(t,e,r){return{x:{valType:\\\"number\\\",dflt:t,editType:\\\"camera\\\"},y:{valType:\\\"number\\\",dflt:e,editType:\\\"camera\\\"},z:{valType:\\\"number\\\",dflt:r,editType:\\\"camera\\\"},editType:\\\"camera\\\"}}e.exports={_arrayAttrRegexps:[o(\\\"scene\\\",\\\".annotations\\\",!0)],bgcolor:{valType:\\\"color\\\",dflt:\\\"rgba(0,0,0,0)\\\",editType:\\\"plot\\\"},camera:{up:a(s(0,0,1),{}),center:a(s(0,0,0),{}),eye:a(s(1.25,1.25,1.25),{}),projection:{type:{valType:\\\"enumerated\\\",values:[\\\"perspective\\\",\\\"orthographic\\\"],dflt:\\\"perspective\\\",editType:\\\"calc\\\"},editType:\\\"calc\\\"},editType:\\\"camera\\\"},domain:i({name:\\\"scene\\\",editType:\\\"plot\\\"}),aspectmode:{valType:\\\"enumerated\\\",values:[\\\"auto\\\",\\\"cube\\\",\\\"data\\\",\\\"manual\\\"],dflt:\\\"auto\\\",editType:\\\"plot\\\",impliedEdits:{\\\"aspectratio.x\\\":void 0,\\\"aspectratio.y\\\":void 0,\\\"aspectratio.z\\\":void 0}},aspectratio:{x:{valType:\\\"number\\\",min:0,editType:\\\"plot\\\",impliedEdits:{\\\"^aspectmode\\\":\\\"manual\\\"}},y:{valType:\\\"number\\\",min:0,editType:\\\"plot\\\",impliedEdits:{\\\"^aspectmode\\\":\\\"manual\\\"}},z:{valType:\\\"number\\\",min:0,editType:\\\"plot\\\",impliedEdits:{\\\"^aspectmode\\\":\\\"manual\\\"}},editType:\\\"plot\\\",impliedEdits:{aspectmode:\\\"manual\\\"}},xaxis:n,yaxis:n,zaxis:n,dragmode:{valType:\\\"enumerated\\\",values:[\\\"orbit\\\",\\\"turntable\\\",\\\"zoom\\\",\\\"pan\\\",!1],editType:\\\"plot\\\"},hovermode:{valType:\\\"enumerated\\\",values:[\\\"closest\\\",!1],dflt:\\\"closest\\\",editType:\\\"modebar\\\"},uirevision:{valType:\\\"any\\\",editType:\\\"none\\\"},editType:\\\"plot\\\",_deprecated:{cameraposition:{valType:\\\"info_array\\\",editType:\\\"camera\\\"}}}},{\\\"../../../lib\\\":703,\\\"../../../lib/extend\\\":693,\\\"../../domain\\\":776,\\\"./axis_attributes\\\":793}],798:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../../lib/str2rgbarray\\\"),i=[\\\"xaxis\\\",\\\"yaxis\\\",\\\"zaxis\\\"];function a(){this.enabled=[!0,!0,!0],this.colors=[[0,0,0,1],[0,0,0,1],[0,0,0,1]],this.drawSides=[!0,!0,!0],this.lineWidth=[1,1,1]}a.prototype.merge=function(t){for(var e=0;e<3;++e){var r=t[i[e]];r.visible?(this.enabled[e]=r.showspikes,this.colors[e]=n(r.spikecolor),this.drawSides[e]=r.spikesides,this.lineWidth[e]=r.spikethickness):(this.enabled[e]=!1,this.drawSides[e]=!1)}},e.exports=function(t){var e=new a;return e.merge(t),e}},{\\\"../../../lib/str2rgbarray\\\":726}],799:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){for(var e=t.axesOptions,r=t.glplot.axesPixels,s=t.fullSceneLayout,l=[[],[],[]],c=0;c<3;++c){var u=s[a[c]];if(u._length=(r[c].hi-r[c].lo)*r[c].pixelsPerDataUnit/t.dataScale[c],Math.abs(u._length)===1/0||isNaN(u._length))l[c]=[];else{u._input_range=u.range.slice(),u.range[0]=r[c].lo/t.dataScale[c],u.range[1]=r[c].hi/t.dataScale[c],u._m=1/(t.dataScale[c]*r[c].pixelsPerDataUnit),u.range[0]===u.range[1]&&(u.range[0]-=1,u.range[1]+=1);var f=u.tickmode;if(\\\"auto\\\"===u.tickmode){u.tickmode=\\\"linear\\\";var h=u.nticks||i.constrain(u._length/40,4,9);n.autoTicks(u,Math.abs(u.range[1]-u.range[0])/h)}for(var p=n.calcTicks(u),d=0;d<p.length;++d)p[d].x=p[d].x*t.dataScale[c],\\\"date\\\"===u.type&&(p[d].text=p[d].text.replace(/\\\\<br\\\\>/g,\\\" \\\"));l[c]=p,u.tickmode=f}}e.ticks=l;for(var c=0;c<3;++c){o[c]=.5*(t.glplot.bounds[0][c]+t.glplot.bounds[1][c]);for(var d=0;d<2;++d)e.bounds[d][c]=t.glplot.bounds[d][c]}t.contourLevels=function(t){for(var e=new Array(3),r=0;r<3;++r){for(var n=t[r],i=new Array(n.length),a=0;a<n.length;++a)i[a]=n[a].x;e[r]=i}return e}(l)};var n=t(\\\"../../cartesian/axes\\\"),i=t(\\\"../../../lib\\\"),a=[\\\"xaxis\\\",\\\"yaxis\\\",\\\"zaxis\\\"],o=[0,0,0]},{\\\"../../../lib\\\":703,\\\"../../cartesian/axes\\\":751}],800:[function(t,e,r){\\\"use strict\\\";function n(t,e){var r,n,i=[0,0,0,0];for(r=0;r<4;++r)for(n=0;n<4;++n)i[n]+=t[4*r+n]*e[r];return i}e.exports=function(t,e){return n(t.projection,n(t.view,n(t.model,[e[0],e[1],e[2],1])))}},{}],801:[function(t,e,r){\\\"use strict\\\";var n,i,a=t(\\\"gl-plot3d\\\").createCamera,o=t(\\\"gl-plot3d\\\").createScene,s=t(\\\"webgl-context\\\"),l=t(\\\"has-passive-events\\\"),c=t(\\\"../../registry\\\"),u=t(\\\"../../lib\\\"),f=t(\\\"../../plots/cartesian/axes\\\"),h=t(\\\"../../components/fx\\\"),p=t(\\\"../../lib/str2rgbarray\\\"),d=t(\\\"../../lib/show_no_webgl_msg\\\"),g=t(\\\"./project\\\"),v=t(\\\"./layout/convert\\\"),m=t(\\\"./layout/spikes\\\"),y=t(\\\"./layout/tick_marks\\\");function x(t,e,r,a){if(t.initializeGLCamera(),!function(t,e,r,a,l){var c={canvas:a,gl:l,container:t.container,axes:t.axesOptions,spikes:t.spikeOptions,pickRadius:10,snapToData:!0,autoScale:!0,autoBounds:!1,cameraObject:e,pixelRatio:r};if(t.staticMode){if(!(i||(n=document.createElement(\\\"canvas\\\"),i=s({canvas:n,preserveDrawingBuffer:!0,premultipliedAlpha:!0,antialias:!0}))))throw new Error(\\\"error creating static canvas/context for image server\\\");c.pixelRatio=t.pixelRatio,c.gl=i,c.canvas=n}try{t.glplot=o(c)}catch(t){return!1}return!0}(t,t.camera,e,r,a))return d(t);var c=t.graphDiv,p=function(t){if(!1!==t.fullSceneLayout.dragmode){var e={};e[t.id+\\\".camera\\\"]=T(t.camera),t.saveCamera(c.layout),t.graphDiv.emit(\\\"plotly_relayout\\\",e)}};return t.glplot.canvas.addEventListener(\\\"mouseup\\\",function(){p(t)}),t.glplot.canvas.addEventListener(\\\"wheel\\\",function(){c._context._scrollZoom.gl3d&&p(t)},!!l&&{passive:!1}),t.glplot.canvas.addEventListener(\\\"mousemove\\\",function(){if(!1!==t.fullSceneLayout.dragmode&&0!==t.camera.mouseListener.buttons){var e={};e[t.id+\\\".camera\\\"]=T(t.camera),t.graphDiv.emit(\\\"plotly_relayouting\\\",e)}}),t.staticMode||t.glplot.canvas.addEventListener(\\\"webglcontextlost\\\",function(e){c&&c.emit&&c.emit(\\\"plotly_webglcontextlost\\\",{event:e,layer:t.id})},!1),t.glplot.camera=t.camera,t.glplot.oncontextloss=function(){t.recoverContext()},t.glplot.onrender=function(t){var e,r=t.graphDiv,n=t.svgContainer,i=t.container.getBoundingClientRect(),a=i.width,o=i.height;n.setAttributeNS(null,\\\"viewBox\\\",\\\"0 0 \\\"+a+\\\" \\\"+o),n.setAttributeNS(null,\\\"width\\\",a),n.setAttributeNS(null,\\\"height\\\",o),y(t),t.glplot.axes.update(t.axesOptions);for(var s,l=Object.keys(t.traces),c=null,p=t.glplot.selection,d=0;d<l.length;++d)\\\"skip\\\"!==(e=t.traces[l[d]]).data.hoverinfo&&e.handlePick(p)&&(c=e),e.setContourLevels&&e.setContourLevels();function v(e,r){var n=t.fullSceneLayout[e];return f.tickText(n,n.d2l(r),\\\"hover\\\").text}if(null!==c){var m=g(t.glplot.cameraParams,p.dataCoordinate);e=c.data;var x,b=r._fullData[e.index],_=p.index,w={xLabel:v(\\\"xaxis\\\",p.traceCoordinate[0]),yLabel:v(\\\"yaxis\\\",p.traceCoordinate[1]),zLabel:v(\\\"zaxis\\\",p.traceCoordinate[2])},k=h.castHoverinfo(b,t.fullLayout,_),T=(k||\\\"\\\").split(\\\"+\\\"),A=k&&\\\"all\\\"===k;b.hovertemplate||A||(-1===T.indexOf(\\\"x\\\")&&(w.xLabel=void 0),-1===T.indexOf(\\\"y\\\")&&(w.yLabel=void 0),-1===T.indexOf(\\\"z\\\")&&(w.zLabel=void 0),-1===T.indexOf(\\\"text\\\")&&(p.textLabel=void 0),-1===T.indexOf(\\\"name\\\")&&(c.name=void 0));var M=[];\\\"cone\\\"===e.type||\\\"streamtube\\\"===e.type?(w.uLabel=v(\\\"xaxis\\\",p.traceCoordinate[3]),(A||-1!==T.indexOf(\\\"u\\\"))&&M.push(\\\"u: \\\"+w.uLabel),w.vLabel=v(\\\"yaxis\\\",p.traceCoordinate[4]),(A||-1!==T.indexOf(\\\"v\\\"))&&M.push(\\\"v: \\\"+w.vLabel),w.wLabel=v(\\\"zaxis\\\",p.traceCoordinate[5]),(A||-1!==T.indexOf(\\\"w\\\"))&&M.push(\\\"w: \\\"+w.wLabel),w.normLabel=p.traceCoordinate[6].toPrecision(3),(A||-1!==T.indexOf(\\\"norm\\\"))&&M.push(\\\"norm: \\\"+w.normLabel),\\\"streamtube\\\"===e.type&&(w.divergenceLabel=p.traceCoordinate[7].toPrecision(3),(A||-1!==T.indexOf(\\\"divergence\\\"))&&M.push(\\\"divergence: \\\"+w.divergenceLabel)),p.textLabel&&M.push(p.textLabel),x=M.join(\\\"<br>\\\")):\\\"isosurface\\\"===e.type||\\\"volume\\\"===e.type?(w.valueLabel=f.tickText(t.mockAxis,t.mockAxis.d2l(p.traceCoordinate[3]),\\\"hover\\\").text,M.push(\\\"value: \\\"+w.valueLabel),p.textLabel&&M.push(p.textLabel),x=M.join(\\\"<br>\\\")):x=p.textLabel;var S={x:p.traceCoordinate[0],y:p.traceCoordinate[1],z:p.traceCoordinate[2],data:b._input,fullData:b,curveNumber:b.index,pointNumber:_};h.appendArrayPointValue(S,b,_),e._module.eventData&&(S=b._module.eventData(S,p,b,{},_));var E={points:[S]};t.fullSceneLayout.hovermode&&h.loneHover({trace:b,x:(.5+.5*m[0]/m[3])*a,y:(.5-.5*m[1]/m[3])*o,xLabel:w.xLabel,yLabel:w.yLabel,zLabel:w.zLabel,text:x,name:c.name,color:h.castHoverOption(b,_,\\\"bgcolor\\\")||c.color,borderColor:h.castHoverOption(b,_,\\\"bordercolor\\\"),fontFamily:h.castHoverOption(b,_,\\\"font.family\\\"),fontSize:h.castHoverOption(b,_,\\\"font.size\\\"),fontColor:h.castHoverOption(b,_,\\\"font.color\\\"),nameLength:h.castHoverOption(b,_,\\\"namelength\\\"),textAlign:h.castHoverOption(b,_,\\\"align\\\"),hovertemplate:u.castOption(b,_,\\\"hovertemplate\\\"),hovertemplateLabels:u.extendFlat({},S,w),eventData:[S]},{container:n,gd:r}),p.buttons&&p.distance<5?r.emit(\\\"plotly_click\\\",E):r.emit(\\\"plotly_hover\\\",E),s=E}else h.loneUnhover(n),r.emit(\\\"plotly_unhover\\\",s);t.drawAnnotations(t)}.bind(null,t),t.traces={},t.make4thDimension(),!0}function b(t,e){var r=document.createElement(\\\"div\\\"),n=t.container;this.graphDiv=t.graphDiv;var i=document.createElementNS(\\\"http://www.w3.org/2000/svg\\\",\\\"svg\\\");i.style.position=\\\"absolute\\\",i.style.top=i.style.left=\\\"0px\\\",i.style.width=i.style.height=\\\"100%\\\",i.style[\\\"z-index\\\"]=20,i.style[\\\"pointer-events\\\"]=\\\"none\\\",r.appendChild(i),this.svgContainer=i,r.id=t.id,r.style.position=\\\"absolute\\\",r.style.top=r.style.left=\\\"0px\\\",r.style.width=r.style.height=\\\"100%\\\",n.appendChild(r),this.fullLayout=e,this.id=t.id||\\\"scene\\\",this.fullSceneLayout=e[this.id],this.plotArgs=[[],{},{}],this.axesOptions=v(e,e[this.id]),this.spikeOptions=m(e[this.id]),this.container=r,this.staticMode=!!t.staticPlot,this.pixelRatio=this.pixelRatio||t.plotGlPixelRatio||2,this.dataScale=[1,1,1],this.contourLevels=[[],[],[]],this.convertAnnotations=c.getComponentMethod(\\\"annotations3d\\\",\\\"convert\\\"),this.drawAnnotations=c.getComponentMethod(\\\"annotations3d\\\",\\\"draw\\\"),x(this,this.pixelRatio)}var _=b.prototype;_.initializeGLCamera=function(){var t=this.fullSceneLayout.camera,e=\\\"orthographic\\\"===t.projection.type;this.camera=a(this.container,{center:[t.center.x,t.center.y,t.center.z],eye:[t.eye.x,t.eye.y,t.eye.z],up:[t.up.x,t.up.y,t.up.z],_ortho:e,zoomMin:.01,zoomMax:100,mode:\\\"orbit\\\"})},_.recoverContext=function(){var t=this,e=this.glplot.gl,r=this.glplot.canvas,n=this.glplot.camera,i=this.glplot.pixelRatio;this.glplot.dispose(),requestAnimationFrame(function a(){e.isContextLost()?requestAnimationFrame(a):x(t,n,i,r)?t.plot.apply(t,t.plotArgs):u.error(\\\"Catastrophic and unrecoverable WebGL error. Context lost.\\\")})};var w=[\\\"xaxis\\\",\\\"yaxis\\\",\\\"zaxis\\\"];function k(t,e,r){for(var n=t.fullSceneLayout,i=0;i<3;i++){var a=w[i],o=a.charAt(0),s=n[a],l=e[o],c=e[o+\\\"calendar\\\"],f=e[\\\"_\\\"+o+\\\"length\\\"];if(u.isArrayOrTypedArray(l))for(var h,p=0;p<(f||l.length);p++)if(u.isArrayOrTypedArray(l[p]))for(var d=0;d<l[p].length;++d)h=s.d2l(l[p][d],0,c),!isNaN(h)&&isFinite(h)&&(r[0][i]=Math.min(r[0][i],h),r[1][i]=Math.max(r[1][i],h));else h=s.d2l(l[p],0,c),!isNaN(h)&&isFinite(h)&&(r[0][i]=Math.min(r[0][i],h),r[1][i]=Math.max(r[1][i],h));else r[0][i]=Math.min(r[0][i],0),r[1][i]=Math.max(r[1][i],f-1)}}function T(t){return{up:{x:t.up[0],y:t.up[1],z:t.up[2]},center:{x:t.center[0],y:t.center[1],z:t.center[2]},eye:{x:t.eye[0],y:t.eye[1],z:t.eye[2]},projection:{type:!0===t._ortho?\\\"orthographic\\\":\\\"perspective\\\"}}}_.plot=function(t,e,r){if(this.plotArgs=[t,e,r],!this.glplot.contextLost){var n,i,a,o,s,l,c=e[this.id],u=r[this.id];c.bgcolor?this.glplot.clearColor=p(c.bgcolor):this.glplot.clearColor=[0,0,0,0],this.glplot.snapToData=!0,this.fullLayout=e,this.fullSceneLayout=c,this.glplotLayout=c,this.axesOptions.merge(e,c),this.spikeOptions.merge(c),this.setCamera(c.camera),this.updateFx(c.dragmode,c.hovermode),this.camera.enableWheel=this.graphDiv._context._scrollZoom.gl3d,this.glplot.update({}),this.setConvert(s),t?Array.isArray(t)||(t=[t]):t=[];var f=[[1/0,1/0,1/0],[-1/0,-1/0,-1/0]];for(a=0;a<t.length;++a)!0===(n=t[a]).visible&&0!==n._length&&k(this,n,f);!function(t,e){for(var r=t.fullSceneLayout,n=r.annotations||[],i=0;i<3;i++)for(var a=w[i],o=a.charAt(0),s=r[a],l=0;l<n.length;l++){var c=n[l];if(c.visible){var u=s.r2l(c[o]);!isNaN(u)&&isFinite(u)&&(e[0][i]=Math.min(e[0][i],u),e[1][i]=Math.max(e[1][i],u))}}}(this,f);var h=[1,1,1];for(o=0;o<3;++o)f[1][o]===f[0][o]?h[o]=1:h[o]=1/(f[1][o]-f[0][o]);for(this.dataScale=h,this.convertAnnotations(this),a=0;a<t.length;++a)!0===(n=t[a]).visible&&0!==n._length&&((i=this.traces[n.uid])?i.data.type===n.type?i.update(n):(i.dispose(),i=n._module.plot(this,n),this.traces[n.uid]=i):(i=n._module.plot(this,n),this.traces[n.uid]=i),i.name=n.name);var d=Object.keys(this.traces);t:for(a=0;a<d.length;++a){for(o=0;o<t.length;++o)if(t[o].uid===d[a]&&!0===t[o].visible&&0!==t[o]._length)continue t;(i=this.traces[d[a]]).dispose(),delete this.traces[d[a]]}this.glplot.objects.sort(function(t,e){return t._trace.data.index-e._trace.data.index});var g=[[0,0,0],[0,0,0]],v=[],m={};for(a=0;a<3;++a){if((l=(s=c[w[a]]).type)in m?(m[l].acc*=h[a],m[l].count+=1):m[l]={acc:h[a],count:1},s.autorange){g[0][a]=1/0,g[1][a]=-1/0;var y=this.glplot.objects,x=this.fullSceneLayout.annotations||[],b=s._name.charAt(0);for(o=0;o<y.length;o++){var _=y[o],T=_.bounds,A=_._trace.data._pad||0;\\\"ErrorBars\\\"===_.constructor.name&&s._lowerLogErrorBound?g[0][a]=Math.min(g[0][a],s._lowerLogErrorBound):g[0][a]=Math.min(g[0][a],T[0][a]/h[a]-A),g[1][a]=Math.max(g[1][a],T[1][a]/h[a]+A)}for(o=0;o<x.length;o++){var M=x[o];if(M.visible){var S=s.r2l(M[b]);g[0][a]=Math.min(g[0][a],S),g[1][a]=Math.max(g[1][a],S)}}if(\\\"rangemode\\\"in s&&\\\"tozero\\\"===s.rangemode&&(g[0][a]=Math.min(g[0][a],0),g[1][a]=Math.max(g[1][a],0)),g[0][a]>g[1][a])g[0][a]=-1,g[1][a]=1;else{var E=g[1][a]-g[0][a];g[0][a]-=E/32,g[1][a]+=E/32}if(\\\"reversed\\\"===s.autorange){var C=g[0][a];g[0][a]=g[1][a],g[1][a]=C}}else{var L=s.range;g[0][a]=s.r2l(L[0]),g[1][a]=s.r2l(L[1])}g[0][a]===g[1][a]&&(g[0][a]-=1,g[1][a]+=1),v[a]=g[1][a]-g[0][a],this.glplot.bounds[0][a]=g[0][a]*h[a],this.glplot.bounds[1][a]=g[1][a]*h[a]}var z=[1,1,1];for(a=0;a<3;++a){var O=m[l=(s=c[w[a]]).type];z[a]=Math.pow(O.acc,1/O.count)/h[a]}var I;if(\\\"auto\\\"===c.aspectmode)I=Math.max.apply(null,z)/Math.min.apply(null,z)<=4?z:[1,1,1];else if(\\\"cube\\\"===c.aspectmode)I=[1,1,1];else if(\\\"data\\\"===c.aspectmode)I=z;else{if(\\\"manual\\\"!==c.aspectmode)throw new Error(\\\"scene.js aspectRatio was not one of the enumerated types\\\");var D=c.aspectratio;I=[D.x,D.y,D.z]}c.aspectratio.x=u.aspectratio.x=I[0],c.aspectratio.y=u.aspectratio.y=I[1],c.aspectratio.z=u.aspectratio.z=I[2],this.glplot.aspect=I;var P=c.domain||null,R=e._size||null;if(P&&R){var F=this.container.style;F.position=\\\"absolute\\\",F.left=R.l+P.x[0]*R.w+\\\"px\\\",F.top=R.t+(1-P.y[1])*R.h+\\\"px\\\",F.width=R.w*(P.x[1]-P.x[0])+\\\"px\\\",F.height=R.h*(P.y[1]-P.y[0])+\\\"px\\\"}this.glplot.redraw()}},_.destroy=function(){this.glplot&&(this.camera.mouseListener.enabled=!1,this.container.removeEventListener(\\\"wheel\\\",this.camera.wheelListener),this.camera=this.glplot.camera=null,this.glplot.dispose(),this.container.parentNode.removeChild(this.container),this.glplot=null)},_.getCamera=function(){return this.glplot.camera.view.recalcMatrix(this.camera.view.lastT()),T(this.glplot.camera)},_.setCamera=function(t){var e;this.glplot.camera.lookAt.apply(this,[[(e=t).eye.x,e.eye.y,e.eye.z],[e.center.x,e.center.y,e.center.z],[e.up.x,e.up.y,e.up.z]]);var r=\\\"orthographic\\\"===t.projection.type;if(r!==this.glplot.camera._ortho){this.glplot.redraw();var n=this.glplot.pixelRatio,i=this.glplot.clearColor;this.glplot.gl.clearColor(i[0],i[1],i[2],i[3]),this.glplot.gl.clear(this.glplot.gl.DEPTH_BUFFER_BIT|this.glplot.gl.COLOR_BUFFER_BIT),this.glplot.dispose(),x(this,n),this.glplot.camera._ortho=r}},_.saveCamera=function(t){var e=this.fullLayout,r=this.getCamera(),n=u.nestedProperty(t,this.id+\\\".camera\\\"),i=n.get(),a=!1;function o(t,e,r,n){var i=[\\\"up\\\",\\\"center\\\",\\\"eye\\\"],a=[\\\"x\\\",\\\"y\\\",\\\"z\\\"];return e[i[r]]&&t[i[r]][a[n]]===e[i[r]][a[n]]}if(void 0===i)a=!0;else{for(var s=0;s<3;s++)for(var l=0;l<3;l++)if(!o(r,i,s,l)){a=!0;break}(!i.projection||r.projection&&r.projection.type!==i.projection.type)&&(a=!0)}if(a){var f={};f[this.id+\\\".camera\\\"]=i,c.call(\\\"_storeDirectGUIEdit\\\",t,e._preGUI,f),n.set(r),u.nestedProperty(e,this.id+\\\".camera\\\").set(r)}return a},_.updateFx=function(t,e){var r=this.camera;if(r)if(\\\"orbit\\\"===t)r.mode=\\\"orbit\\\",r.keyBindingMode=\\\"rotate\\\";else if(\\\"turntable\\\"===t){r.up=[0,0,1],r.mode=\\\"turntable\\\",r.keyBindingMode=\\\"rotate\\\";var n=this.graphDiv,i=n._fullLayout,a=this.fullSceneLayout.camera,o=a.up.x,s=a.up.y,l=a.up.z;if(l/Math.sqrt(o*o+s*s+l*l)<.999){var f=this.id+\\\".camera.up\\\",h={x:0,y:0,z:1},p={};p[f]=h;var d=n.layout;c.call(\\\"_storeDirectGUIEdit\\\",d,i._preGUI,p),a.up=h,u.nestedProperty(d,f).set(h)}}else r.keyBindingMode=t;this.fullSceneLayout.hovermode=e},_.toImage=function(t){t||(t=\\\"png\\\"),this.staticMode&&this.container.appendChild(n),this.glplot.redraw();var e=this.glplot.gl,r=e.drawingBufferWidth,i=e.drawingBufferHeight;e.bindFramebuffer(e.FRAMEBUFFER,null);var a=new Uint8Array(r*i*4);e.readPixels(0,0,r,i,e.RGBA,e.UNSIGNED_BYTE,a);for(var o=0,s=i-1;o<s;++o,--s)for(var l=0;l<r;++l)for(var c=0;c<4;++c){var u=a[4*(r*o+l)+c];a[4*(r*o+l)+c]=a[4*(r*s+l)+c],a[4*(r*s+l)+c]=u}var f=document.createElement(\\\"canvas\\\");f.width=r,f.height=i;var h,p=f.getContext(\\\"2d\\\"),d=p.createImageData(r,i);switch(d.data.set(a),p.putImageData(d,0,0),t){case\\\"jpeg\\\":h=f.toDataURL(\\\"image/jpeg\\\");break;case\\\"webp\\\":h=f.toDataURL(\\\"image/webp\\\");break;default:h=f.toDataURL(\\\"image/png\\\")}return this.staticMode&&this.container.removeChild(n),h},_.setConvert=function(){for(var t=0;t<3;t++){var e=this.fullSceneLayout[w[t]];f.setConvert(e,this.fullLayout),e.setScale=u.noop}},_.make4thDimension=function(){var t=this.graphDiv._fullLayout;this.mockAxis={type:\\\"linear\\\",showexponent:\\\"all\\\",exponentformat:\\\"B\\\"},f.setConvert(this.mockAxis,t)},e.exports=b},{\\\"../../components/fx\\\":619,\\\"../../lib\\\":703,\\\"../../lib/show_no_webgl_msg\\\":724,\\\"../../lib/str2rgbarray\\\":726,\\\"../../plots/cartesian/axes\\\":751,\\\"../../registry\\\":831,\\\"./layout/convert\\\":795,\\\"./layout/spikes\\\":798,\\\"./layout/tick_marks\\\":799,\\\"./project\\\":800,\\\"gl-plot3d\\\":289,\\\"has-passive-events\\\":406,\\\"webgl-context\\\":543}],802:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,n){n=n||t.length;for(var i=new Array(n),a=0;a<n;a++)i[a]=[t[a],e[a],r[a]];return i}},{}],803:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./font_attributes\\\"),i=t(\\\"./animation_attributes\\\"),a=t(\\\"../components/color/attributes\\\"),o=t(\\\"./pad_attributes\\\"),s=t(\\\"../lib/extend\\\").extendFlat,l=n({editType:\\\"calc\\\"});l.family.dflt='\\\"Open Sans\\\", verdana, arial, sans-serif',l.size.dflt=12,l.color.dflt=a.defaultLine,e.exports={font:l,title:{text:{valType:\\\"string\\\",editType:\\\"layoutstyle\\\"},font:n({editType:\\\"layoutstyle\\\"}),xref:{valType:\\\"enumerated\\\",dflt:\\\"container\\\",values:[\\\"container\\\",\\\"paper\\\"],editType:\\\"layoutstyle\\\"},yref:{valType:\\\"enumerated\\\",dflt:\\\"container\\\",values:[\\\"container\\\",\\\"paper\\\"],editType:\\\"layoutstyle\\\"},x:{valType:\\\"number\\\",min:0,max:1,dflt:.5,editType:\\\"layoutstyle\\\"},y:{valType:\\\"number\\\",min:0,max:1,dflt:\\\"auto\\\",editType:\\\"layoutstyle\\\"},xanchor:{valType:\\\"enumerated\\\",dflt:\\\"auto\\\",values:[\\\"auto\\\",\\\"left\\\",\\\"center\\\",\\\"right\\\"],editType:\\\"layoutstyle\\\"},yanchor:{valType:\\\"enumerated\\\",dflt:\\\"auto\\\",values:[\\\"auto\\\",\\\"top\\\",\\\"middle\\\",\\\"bottom\\\"],editType:\\\"layoutstyle\\\"},pad:s(o({editType:\\\"layoutstyle\\\"}),{}),editType:\\\"layoutstyle\\\"},autosize:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"none\\\"},width:{valType:\\\"number\\\",min:10,dflt:700,editType:\\\"plot\\\"},height:{valType:\\\"number\\\",min:10,dflt:450,editType:\\\"plot\\\"},margin:{l:{valType:\\\"number\\\",min:0,dflt:80,editType:\\\"plot\\\"},r:{valType:\\\"number\\\",min:0,dflt:80,editType:\\\"plot\\\"},t:{valType:\\\"number\\\",min:0,dflt:100,editType:\\\"plot\\\"},b:{valType:\\\"number\\\",min:0,dflt:80,editType:\\\"plot\\\"},pad:{valType:\\\"number\\\",min:0,dflt:0,editType:\\\"plot\\\"},autoexpand:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"plot\\\"},editType:\\\"plot\\\"},paper_bgcolor:{valType:\\\"color\\\",dflt:a.background,editType:\\\"plot\\\"},plot_bgcolor:{valType:\\\"color\\\",dflt:a.background,editType:\\\"layoutstyle\\\"},separators:{valType:\\\"string\\\",editType:\\\"plot\\\"},hidesources:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"plot\\\"},showlegend:{valType:\\\"boolean\\\",editType:\\\"legend\\\"},colorway:{valType:\\\"colorlist\\\",dflt:a.defaults,editType:\\\"calc\\\"},datarevision:{valType:\\\"any\\\",editType:\\\"calc\\\"},uirevision:{valType:\\\"any\\\",editType:\\\"none\\\"},editrevision:{valType:\\\"any\\\",editType:\\\"none\\\"},selectionrevision:{valType:\\\"any\\\",editType:\\\"none\\\"},template:{valType:\\\"any\\\",editType:\\\"calc\\\"},modebar:{orientation:{valType:\\\"enumerated\\\",values:[\\\"v\\\",\\\"h\\\"],dflt:\\\"h\\\",editType:\\\"modebar\\\"},bgcolor:{valType:\\\"color\\\",editType:\\\"modebar\\\"},color:{valType:\\\"color\\\",editType:\\\"modebar\\\"},activecolor:{valType:\\\"color\\\",editType:\\\"modebar\\\"},uirevision:{valType:\\\"any\\\",editType:\\\"none\\\"},editType:\\\"modebar\\\"},meta:{valType:\\\"any\\\",arrayOk:!0,editType:\\\"plot\\\"},transition:s({},i.transition,{editType:\\\"none\\\"}),_deprecated:{title:{valType:\\\"string\\\",editType:\\\"layoutstyle\\\"},titlefont:n({editType:\\\"layoutstyle\\\"})}}},{\\\"../components/color/attributes\\\":579,\\\"../lib/extend\\\":693,\\\"./animation_attributes\\\":746,\\\"./font_attributes\\\":777,\\\"./pad_attributes\\\":811}],804:[function(t,e,r){\\\"use strict\\\";e.exports={requiredVersion:\\\"0.45.0\\\",styleUrlPrefix:\\\"mapbox://styles/mapbox/\\\",styleUrlSuffix:\\\"v9\\\",controlContainerClassName:\\\"mapboxgl-control-container\\\",wrongVersionErrorMsg:[\\\"Your custom plotly.js bundle is not using the correct mapbox-gl version\\\",\\\"Please install mapbox-gl@0.45.0.\\\"].join(\\\"\\\\n\\\"),noAccessTokenErrorMsg:[\\\"Missing Mapbox access token.\\\",\\\"Mapbox trace type require a Mapbox access token to be registered.\\\",\\\"For example:\\\",\\\"  Plotly.plot(gd, data, layout, { mapboxAccessToken: 'my-access-token' });\\\",\\\"More info here: https://www.mapbox.com/help/define-access-token/\\\"].join(\\\"\\\\n\\\"),mapOnErrorMsg:\\\"Mapbox error.\\\",styleRules:{map:\\\"overflow:hidden;position:relative;\\\",\\\"missing-css\\\":\\\"display:none\\\"}}},{}],805:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\");e.exports=function(t,e){var r=t.split(\\\" \\\"),i=r[0],a=r[1],o=n.isArrayOrTypedArray(e)?n.mean(e):e,s=.5+o/100,l=1.5+o/100,c=[\\\"\\\",\\\"\\\"],u=[0,0];switch(i){case\\\"top\\\":c[0]=\\\"top\\\",u[1]=-l;break;case\\\"bottom\\\":c[0]=\\\"bottom\\\",u[1]=l}switch(a){case\\\"left\\\":c[1]=\\\"right\\\",u[0]=-s;break;case\\\"right\\\":c[1]=\\\"left\\\",u[0]=s}return{anchor:c[0]&&c[1]?c.join(\\\"-\\\"):c[0]?c[0]:c[1]?c[1]:\\\"center\\\",offset:u}}},{\\\"../../lib\\\":703}],806:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"mapbox-gl\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../plots/get_data\\\").getSubplotCalcData,o=t(\\\"../../constants/xmlns_namespaces\\\"),s=t(\\\"./mapbox\\\"),l=t(\\\"./constants\\\");for(var c in l.styleRules)i.addStyleRule(\\\".mapboxgl-\\\"+c,l.styleRules[c]);r.name=\\\"mapbox\\\",r.attr=\\\"subplot\\\",r.idRoot=\\\"mapbox\\\",r.idRegex=r.attrRegex=i.counterRegex(\\\"mapbox\\\"),r.attributes={subplot:{valType:\\\"subplotid\\\",dflt:\\\"mapbox\\\",editType:\\\"calc\\\"}},r.layoutAttributes=t(\\\"./layout_attributes\\\"),r.supplyLayoutDefaults=t(\\\"./layout_defaults\\\"),r.plot=function(t){var e=t._fullLayout,r=t.calcdata,o=e._subplots.mapbox;if(n.version!==l.requiredVersion)throw new Error(l.wrongVersionErrorMsg);var c=function(t,e){var r=t._fullLayout;if(\\\"\\\"===t._context.mapboxAccessToken)return\\\"\\\";for(var n=0;n<e.length;n++){var i=r[e[n]];if(i.accesstoken)return i.accesstoken}throw new Error(l.noAccessTokenErrorMsg)}(t,o);n.accessToken=c;for(var u=0;u<o.length;u++){var f=o[u],h=a(r,\\\"mapbox\\\",f),p=e[f],d=p._subplot;d||(d=s({gd:t,container:e._glcontainer.node(),id:f,fullLayout:e,staticPlot:t._context.staticPlot}),e[f]._subplot=d),d.viewInitial||(d.viewInitial={center:i.extendFlat({},p.center),zoom:p.zoom,bearing:p.bearing,pitch:p.pitch}),d.plot(h,e,t._promises)}},r.clean=function(t,e,r,n){for(var i=n._subplots.mapbox||[],a=0;a<i.length;a++){var o=i[a];!e[o]&&n[o]._subplot&&n[o]._subplot.destroy()}},r.toSVG=function(t){for(var e=t._fullLayout,r=e._subplots.mapbox,n=e._size,i=0;i<r.length;i++){var a=e[r[i]],s=a.domain,l=a._subplot,c=l.toImage(\\\"png\\\");e._glimages.append(\\\"svg:image\\\").attr({xmlns:o.svg,\\\"xlink:href\\\":c,x:n.l+n.w*s.x[0],y:n.t+n.h*(1-s.y[1]),width:n.w*(s.x[1]-s.x[0]),height:n.h*(s.y[1]-s.y[0]),preserveAspectRatio:\\\"none\\\"}),l.destroy()}},r.updateFx=function(t){for(var e=t._fullLayout,r=e._subplots.mapbox,n=0;n<r.length;n++){e[r[n]]._subplot.updateFx(e)}}},{\\\"../../constants/xmlns_namespaces\\\":681,\\\"../../lib\\\":703,\\\"../../plots/get_data\\\":786,\\\"./constants\\\":804,\\\"./layout_attributes\\\":808,\\\"./layout_defaults\\\":809,\\\"./mapbox\\\":810,\\\"mapbox-gl\\\":421}],807:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./convert_text_opts\\\");function a(t,e){this.mapbox=t,this.map=t.map,this.uid=t.uid+\\\"-layer\\\"+e,this.idSource=this.uid+\\\"-source\\\",this.idLayer=this.uid+\\\"-layer\\\",this.sourceType=null,this.source=null,this.layerType=null,this.below=null,this.visible=!1}var o=a.prototype;function s(t){var e=t.source;return t.visible&&(n.isPlainObject(e)||\\\"string\\\"==typeof e&&e.length>0)}function l(t){var e={},r={};switch(t.type){case\\\"circle\\\":n.extendFlat(r,{\\\"circle-radius\\\":t.circle.radius,\\\"circle-color\\\":t.color,\\\"circle-opacity\\\":t.opacity});break;case\\\"line\\\":n.extendFlat(r,{\\\"line-width\\\":t.line.width,\\\"line-color\\\":t.color,\\\"line-opacity\\\":t.opacity,\\\"line-dasharray\\\":t.line.dash});break;case\\\"fill\\\":n.extendFlat(r,{\\\"fill-color\\\":t.color,\\\"fill-outline-color\\\":t.fill.outlinecolor,\\\"fill-opacity\\\":t.opacity});break;case\\\"symbol\\\":var a=t.symbol,o=i(a.textposition,a.iconsize);n.extendFlat(e,{\\\"icon-image\\\":a.icon+\\\"-15\\\",\\\"icon-size\\\":a.iconsize/10,\\\"text-field\\\":a.text,\\\"text-size\\\":a.textfont.size,\\\"text-anchor\\\":o.anchor,\\\"text-offset\\\":o.offset,\\\"symbol-placement\\\":a.placement}),n.extendFlat(r,{\\\"icon-color\\\":t.color,\\\"text-color\\\":a.textfont.color,\\\"text-opacity\\\":t.opacity})}return{layout:e,paint:r}}o.update=function(t){this.visible?this.needsNewSource(t)?(this.removeLayer(),this.updateSource(t),this.updateLayer(t)):this.needsNewLayer(t)?this.updateLayer(t):this.updateStyle(t):(this.updateSource(t),this.updateLayer(t)),this.visible=s(t)},o.needsNewSource=function(t){return this.sourceType!==t.sourcetype||this.source!==t.source||this.layerType!==t.type},o.needsNewLayer=function(t){return this.layerType!==t.type||this.below!==t.below},o.updateSource=function(t){var e=this.map;if(e.getSource(this.idSource)&&e.removeSource(this.idSource),this.sourceType=t.sourcetype,this.source=t.source,s(t)){var r=function(t){var e,r=t.sourcetype,n=t.source,i={type:r};\\\"geojson\\\"===r?e=\\\"data\\\":\\\"vector\\\"===r&&(e=\\\"string\\\"==typeof n?\\\"url\\\":\\\"tiles\\\");return i[e]=n,i}(t);e.addSource(this.idSource,r)}},o.updateLayer=function(t){var e=this.map,r=l(t);this.removeLayer(),this.layerType=t.type,s(t)&&e.addLayer({id:this.idLayer,source:this.idSource,\\\"source-layer\\\":t.sourcelayer||\\\"\\\",type:t.type,minzoom:t.minzoom,maxzoom:t.maxzoom,layout:r.layout,paint:r.paint},t.below)},o.updateStyle=function(t){if(s(t)){var e=l(t);this.mapbox.setOptions(this.idLayer,\\\"setLayoutProperty\\\",e.layout),this.mapbox.setOptions(this.idLayer,\\\"setPaintProperty\\\",e.paint)}},o.removeLayer=function(){var t=this.map;t.getLayer(this.idLayer)&&t.removeLayer(this.idLayer)},o.dispose=function(){var t=this.map;t.removeLayer(this.idLayer),t.removeSource(this.idSource)},e.exports=function(t,e,r){var n=new a(t,e);return n.update(r),n}},{\\\"../../lib\\\":703,\\\"./convert_text_opts\\\":805}],808:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../components/color\\\").defaultLine,a=t(\\\"../domain\\\").attributes,o=t(\\\"../font_attributes\\\"),s=t(\\\"../../traces/scatter/attributes\\\").textposition,l=t(\\\"../../plot_api/edit_types\\\").overrideAll,c=t(\\\"../../plot_api/plot_template\\\").templatedArray,u=o({});u.family.dflt=\\\"Open Sans Regular, Arial Unicode MS Regular\\\",(e.exports=l({_arrayAttrRegexps:[n.counterRegex(\\\"mapbox\\\",\\\".layers\\\",!0)],domain:a({name:\\\"mapbox\\\"}),accesstoken:{valType:\\\"string\\\",noBlank:!0,strict:!0},style:{valType:\\\"any\\\",values:[\\\"basic\\\",\\\"streets\\\",\\\"outdoors\\\",\\\"light\\\",\\\"dark\\\",\\\"satellite\\\",\\\"satellite-streets\\\"],dflt:\\\"basic\\\"},center:{lon:{valType:\\\"number\\\",dflt:0},lat:{valType:\\\"number\\\",dflt:0}},zoom:{valType:\\\"number\\\",dflt:1},bearing:{valType:\\\"number\\\",dflt:0},pitch:{valType:\\\"number\\\",dflt:0},layers:c(\\\"layer\\\",{visible:{valType:\\\"boolean\\\",dflt:!0},sourcetype:{valType:\\\"enumerated\\\",values:[\\\"geojson\\\",\\\"vector\\\"],dflt:\\\"geojson\\\"},source:{valType:\\\"any\\\"},sourcelayer:{valType:\\\"string\\\",dflt:\\\"\\\"},type:{valType:\\\"enumerated\\\",values:[\\\"circle\\\",\\\"line\\\",\\\"fill\\\",\\\"symbol\\\"],dflt:\\\"circle\\\"},below:{valType:\\\"string\\\",dflt:\\\"\\\"},color:{valType:\\\"color\\\",dflt:i},opacity:{valType:\\\"number\\\",min:0,max:1,dflt:1},minzoom:{valType:\\\"number\\\",min:0,max:24,dflt:0},maxzoom:{valType:\\\"number\\\",min:0,max:24,dflt:24},circle:{radius:{valType:\\\"number\\\",dflt:15}},line:{width:{valType:\\\"number\\\",dflt:2},dash:{valType:\\\"data_array\\\"}},fill:{outlinecolor:{valType:\\\"color\\\",dflt:i}},symbol:{icon:{valType:\\\"string\\\",dflt:\\\"marker\\\"},iconsize:{valType:\\\"number\\\",dflt:10},text:{valType:\\\"string\\\",dflt:\\\"\\\"},placement:{valType:\\\"enumerated\\\",values:[\\\"point\\\",\\\"line\\\",\\\"line-center\\\"],dflt:\\\"point\\\"},textfont:u,textposition:n.extendFlat({},s,{arrayOk:!1})}})},\\\"plot\\\",\\\"from-root\\\")).uirevision={valType:\\\"any\\\",editType:\\\"none\\\"}},{\\\"../../components/color\\\":580,\\\"../../lib\\\":703,\\\"../../plot_api/edit_types\\\":734,\\\"../../plot_api/plot_template\\\":741,\\\"../../traces/scatter/attributes\\\":1075,\\\"../domain\\\":776,\\\"../font_attributes\\\":777}],809:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../subplot_defaults\\\"),a=t(\\\"../array_container_defaults\\\"),o=t(\\\"./layout_attributes\\\");function s(t,e,r,n){r(\\\"accesstoken\\\",n.accessToken),r(\\\"style\\\"),r(\\\"center.lon\\\"),r(\\\"center.lat\\\"),r(\\\"zoom\\\"),r(\\\"bearing\\\"),r(\\\"pitch\\\"),a(t,e,{name:\\\"layers\\\",handleItemDefaults:l}),e._input=t}function l(t,e){function r(r,i){return n.coerce(t,e,o.layers,r,i)}if(r(\\\"visible\\\")){var i=r(\\\"sourcetype\\\");r(\\\"source\\\"),\\\"vector\\\"===i&&r(\\\"sourcelayer\\\");var a=r(\\\"type\\\");r(\\\"below\\\"),r(\\\"color\\\"),r(\\\"opacity\\\"),r(\\\"minzoom\\\"),r(\\\"maxzoom\\\"),\\\"circle\\\"===a&&r(\\\"circle.radius\\\"),\\\"line\\\"===a&&(r(\\\"line.width\\\"),r(\\\"line.dash\\\")),\\\"fill\\\"===a&&r(\\\"fill.outlinecolor\\\"),\\\"symbol\\\"===a&&(r(\\\"symbol.icon\\\"),r(\\\"symbol.iconsize\\\"),r(\\\"symbol.text\\\"),n.coerceFont(r,\\\"symbol.textfont\\\"),r(\\\"symbol.textposition\\\"),r(\\\"symbol.placement\\\"))}}e.exports=function(t,e,r){i(t,e,r,{type:\\\"mapbox\\\",attributes:o,handleDefaults:s,partition:\\\"y\\\",accessToken:e._mapboxAccessToken})}},{\\\"../../lib\\\":703,\\\"../array_container_defaults\\\":747,\\\"../subplot_defaults\\\":826,\\\"./layout_attributes\\\":808}],810:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"mapbox-gl\\\"),i=t(\\\"../../components/fx\\\"),a=t(\\\"../../lib\\\"),o=t(\\\"../../registry\\\"),s=t(\\\"../../components/dragelement\\\"),l=t(\\\"../cartesian/select\\\").prepSelect,c=t(\\\"../cartesian/select\\\").selectOnClick,u=t(\\\"./constants\\\"),f=t(\\\"./layout_attributes\\\"),h=t(\\\"./layers\\\");function p(t){this.id=t.id,this.gd=t.gd,this.container=t.container,this.isStatic=t.staticPlot;var e=t.fullLayout;this.uid=e._uid+\\\"-\\\"+this.id,this.div=null,this.xaxis=null,this.yaxis=null,this.createFramework(e),this.map=null,this.accessToken=null,this.styleObj=null,this.traceHash={},this.layerList=[]}var d=p.prototype;function g(t){var e=f.style.values,r=f.style.dflt,n={};return a.isPlainObject(t)?(n.id=t.id,n.style=t):\\\"string\\\"==typeof t?(n.id=t,n.style=-1!==e.indexOf(t)?v(t):t):(n.id=r,n.style=v(r)),n.transition={duration:0,delay:0},n}function v(t){return u.styleUrlPrefix+t+\\\"-\\\"+u.styleUrlSuffix}function m(t){return[t.lon,t.lat]}e.exports=function(t){return new p(t)},d.plot=function(t,e,r){var n,i=this,a=e[i.id];i.map&&a.accesstoken!==i.accessToken&&(i.map.remove(),i.map=null,i.styleObj=null,i.traceHash=[],i.layerList={}),n=i.map?new Promise(function(r,n){i.updateMap(t,e,r,n)}):new Promise(function(r,n){i.createMap(t,e,r,n)}),r.push(n)},d.createMap=function(t,e,r,a){var s=this,l=s.gd,f=e[s.id],h=s.styleObj=g(f.style);s.accessToken=f.accesstoken;var p=s.map=new n.Map({container:s.div,style:h.style,center:m(f.center),zoom:f.zoom,bearing:f.bearing,pitch:f.pitch,interactive:!s.isStatic,preserveDrawingBuffer:s.isStatic,doubleClickZoom:!1,boxZoom:!1}),d=u.controlContainerClassName,v=s.div.getElementsByClassName(d)[0];if(s.div.removeChild(v),p._canvas.style.left=\\\"0px\\\",p._canvas.style.top=\\\"0px\\\",s.rejectOnError(a),p.once(\\\"load\\\",function(){s.updateData(t),s.updateLayout(e),s.resolveOnRender(r)}),!s.isStatic){var y=!1;p.on(\\\"moveend\\\",function(t){if(s.map){if(t.originalEvent||y){var e=l._fullLayout[s.id];o.call(\\\"_storeDirectGUIEdit\\\",l.layout,l._fullLayout._preGUI,s.getViewEdits(e));var r=s.getView();e._input.center=e.center=r.center,e._input.zoom=e.zoom=r.zoom,e._input.bearing=e.bearing=r.bearing,e._input.pitch=e.pitch=r.pitch,l.emit(\\\"plotly_relayout\\\",s.getViewEdits(r))}y=!1}}),p.on(\\\"wheel\\\",function(){y=!0}),p.on(\\\"mousemove\\\",function(t){var e=s.div.getBoundingClientRect();t.clientX=t.point.x+e.left,t.clientY=t.point.y+e.top,t.target.getBoundingClientRect=function(){return e},s.xaxis.p2c=function(){return t.lngLat.lng},s.yaxis.p2c=function(){return t.lngLat.lat},i.hover(l,t,s.id)}),p.on(\\\"dragstart\\\",x),p.on(\\\"zoomstart\\\",x),p.on(\\\"drag\\\",b),p.on(\\\"zoom\\\",b),p.on(\\\"dblclick\\\",function(){var t=l._fullLayout[s.id];o.call(\\\"_storeDirectGUIEdit\\\",l.layout,l._fullLayout._preGUI,s.getViewEdits(t));var e=s.viewInitial;p.setCenter(m(e.center)),p.setZoom(e.zoom),p.setBearing(e.bearing),p.setPitch(e.pitch);var r=s.getView();t._input.center=t.center=r.center,t._input.zoom=t.zoom=r.zoom,t._input.bearing=t.bearing=r.bearing,t._input.pitch=t.pitch=r.pitch,l.emit(\\\"plotly_doubleclick\\\",null),l.emit(\\\"plotly_relayout\\\",s.getViewEdits(r))}),s.clearSelect=function(){l._fullLayout._zoomlayer.selectAll(\\\".select-outline\\\").remove()},s.onClickInPanFn=function(t){return function(e){var r=l._fullLayout.clickmode;r.indexOf(\\\"select\\\")>-1&&c(e.originalEvent,l,[s.xaxis],[s.yaxis],s.id,t),r.indexOf(\\\"event\\\")>-1&&i.click(l,e.originalEvent)}}}function x(){i.loneUnhover(e._toppaper)}function b(){var t=s.getView();l.emit(\\\"plotly_relayouting\\\",s.getViewEdits(t))}},d.updateMap=function(t,e,r,n){var i=this,a=i.map,o=e[this.id];i.rejectOnError(n);var s=g(o.style);i.styleObj.id!==s.id?(i.styleObj=s,a.setStyle(s.style),a.once(\\\"styledata\\\",function(){i.traceHash={},i.updateData(t),i.updateLayout(e),i.resolveOnRender(r)})):(i.updateData(t),i.updateLayout(e),i.resolveOnRender(r))},d.updateData=function(t){var e,r,n,i,a=this.traceHash;for(n=0;n<t.length;n++){var o=t[n];(e=a[(r=o[0].trace).uid])?e.update(o):r._module&&(a[r.uid]=r._module.plot(this,o))}var s=Object.keys(a);t:for(n=0;n<s.length;n++){var l=s[n];for(i=0;i<t.length;i++)if(l===(r=t[i][0].trace).uid)continue t;(e=a[l]).dispose(),delete a[l]}},d.updateLayout=function(t){var e=this.map,r=t[this.id];e.setCenter(m(r.center)),e.setZoom(r.zoom),e.setBearing(r.bearing),e.setPitch(r.pitch),this.updateLayers(t),this.updateFramework(t),this.updateFx(t),this.map.resize(),this.gd._context._scrollZoom.mapbox?e.scrollZoom.enable():e.scrollZoom.disable()},d.resolveOnRender=function(t){var e=this.map;e.on(\\\"render\\\",function r(){e.loaded()&&(e.off(\\\"render\\\",r),setTimeout(t,0))})},d.rejectOnError=function(t){var e=this.map;function r(){t(new Error(u.mapOnErrorMsg))}e.once(\\\"error\\\",r),e.once(\\\"style.error\\\",r),e.once(\\\"source.error\\\",r),e.once(\\\"tile.error\\\",r),e.once(\\\"layer.error\\\",r)},d.createFramework=function(t){var e=this,r=e.div=document.createElement(\\\"div\\\");r.id=e.uid,r.style.position=\\\"absolute\\\",e.container.appendChild(r),e.xaxis={_id:\\\"x\\\",c2p:function(t){return e.project(t).x}},e.yaxis={_id:\\\"y\\\",c2p:function(t){return e.project(t).y}},e.updateFramework(t)},d.updateFx=function(t){var e=this,r=e.map,n=e.gd;if(!e.isStatic){var i,o=t.dragmode;i=\\\"select\\\"===o?function(t,r){(t.range={})[e.id]=[u([r.xmin,r.ymin]),u([r.xmax,r.ymax])]}:function(t,r,n){(t.lassoPoints={})[e.id]=n.filtered.map(u)};var c=e.dragOptions;e.dragOptions=a.extendDeep(c||{},{element:e.div,gd:n,plotinfo:{id:e.id,xaxis:e.xaxis,yaxis:e.yaxis,fillRangeItems:i},xaxes:[e.xaxis],yaxes:[e.yaxis],subplot:e.id}),r.off(\\\"click\\\",e.onClickInPanHandler),\\\"select\\\"===o||\\\"lasso\\\"===o?(r.dragPan.disable(),r.on(\\\"zoomstart\\\",e.clearSelect),e.dragOptions.prepFn=function(t,r,n){l(t,r,n,e.dragOptions,o)},s.init(e.dragOptions)):(r.dragPan.enable(),r.off(\\\"zoomstart\\\",e.clearSelect),e.div.onmousedown=null,e.onClickInPanHandler=e.onClickInPanFn(e.dragOptions),r.on(\\\"click\\\",e.onClickInPanHandler))}function u(t){var r=e.map.unproject(t);return[r.lng,r.lat]}},d.updateFramework=function(t){var e=t[this.id].domain,r=t._size,n=this.div.style;n.width=r.w*(e.x[1]-e.x[0])+\\\"px\\\",n.height=r.h*(e.y[1]-e.y[0])+\\\"px\\\",n.left=r.l+e.x[0]*r.w+\\\"px\\\",n.top=r.t+(1-e.y[1])*r.h+\\\"px\\\",this.xaxis._offset=r.l+e.x[0]*r.w,this.xaxis._length=r.w*(e.x[1]-e.x[0]),this.yaxis._offset=r.t+(1-e.y[1])*r.h,this.yaxis._length=r.h*(e.y[1]-e.y[0])},d.updateLayers=function(t){var e,r=t[this.id].layers,n=this.layerList;if(r.length!==n.length){for(e=0;e<n.length;e++)n[e].dispose();for(n=this.layerList=[],e=0;e<r.length;e++)n.push(h(this,e,r[e]))}else for(e=0;e<r.length;e++)n[e].update(r[e])},d.destroy=function(){this.map&&(this.map.remove(),this.map=null,this.container.removeChild(this.div))},d.toImage=function(){return this.map.stop(),this.map.getCanvas().toDataURL()},d.setOptions=function(t,e,r){for(var n in r)this.map[e](t,n,r[n])},d.project=function(t){return this.map.project(new n.LngLat(t[0],t[1]))},d.getView=function(){var t=this.map,e=t.getCenter();return{center:{lon:e.lng,lat:e.lat},zoom:t.getZoom(),bearing:t.getBearing(),pitch:t.getPitch()}},d.getViewEdits=function(t){for(var e=this.id,r=[\\\"center\\\",\\\"zoom\\\",\\\"bearing\\\",\\\"pitch\\\"],n={},i=0;i<r.length;i++){var a=r[i];n[e+\\\".\\\"+a]=t[a]}return n}},{\\\"../../components/dragelement\\\":598,\\\"../../components/fx\\\":619,\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"../cartesian/select\\\":768,\\\"./constants\\\":804,\\\"./layers\\\":807,\\\"./layout_attributes\\\":808,\\\"mapbox-gl\\\":421}],811:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){var e=t.editType;return{t:{valType:\\\"number\\\",dflt:0,editType:e},r:{valType:\\\"number\\\",dflt:0,editType:e},b:{valType:\\\"number\\\",dflt:0,editType:e},l:{valType:\\\"number\\\",dflt:0,editType:e},editType:e}}},{}],812:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"fast-isnumeric\\\"),a=t(\\\"../registry\\\"),o=t(\\\"../plot_api/plot_schema\\\"),s=t(\\\"../plot_api/plot_template\\\"),l=t(\\\"../lib\\\"),c=t(\\\"../components/color\\\"),u=t(\\\"../constants/numerical\\\").BADNUM,f=t(\\\"./cartesian/axis_ids\\\"),h=t(\\\"./animation_attributes\\\"),p=t(\\\"./frame_attributes\\\"),d=l.relinkPrivateKeys,g=l._,v=e.exports={};l.extendFlat(v,a),v.attributes=t(\\\"./attributes\\\"),v.attributes.type.values=v.allTypes,v.fontAttrs=t(\\\"./font_attributes\\\"),v.layoutAttributes=t(\\\"./layout_attributes\\\"),v.fontWeight=\\\"normal\\\";var m=v.transformsRegistry,y=t(\\\"./command\\\");v.executeAPICommand=y.executeAPICommand,v.computeAPICommandBindings=y.computeAPICommandBindings,v.manageCommandObserver=y.manageCommandObserver,v.hasSimpleAPICommandBindings=y.hasSimpleAPICommandBindings,v.redrawText=function(t){var e=(t=l.getGraphDiv(t))._fullLayout||{};if(!(!(e._has&&e._has(\\\"polar\\\"))&&t.data&&t.data[0]&&t.data[0].r))return new Promise(function(e){setTimeout(function(){a.getComponentMethod(\\\"annotations\\\",\\\"draw\\\")(t),a.getComponentMethod(\\\"legend\\\",\\\"draw\\\")(t),a.getComponentMethod(\\\"colorbar\\\",\\\"draw\\\")(t),e(v.previousPromises(t))},300)})},v.resize=function(t){return t=l.getGraphDiv(t),new Promise(function(e,r){function n(t){var e=window.getComputedStyle(t).display;return!e||\\\"none\\\"===e}t&&!n(t)||r(new Error(\\\"Resize must be passed a displayed plot div element.\\\")),t._redrawTimer&&clearTimeout(t._redrawTimer),t._redrawTimer=setTimeout(function(){if(!t.layout||t.layout.width&&t.layout.height||n(t))e(t);else{delete t.layout.width,delete t.layout.height;var r=t.changed;t.autoplay=!0,a.call(\\\"relayout\\\",t,{autosize:!0}).then(function(){t.changed=r,e(t)})}},100)})},v.previousPromises=function(t){if((t._promises||[]).length)return Promise.all(t._promises).then(function(){t._promises=[]})},v.addLinks=function(t){if(t._context.showLink||t._context.showSources){var e=t._fullLayout,r=l.ensureSingle(e._paper,\\\"text\\\",\\\"js-plot-link-container\\\",function(t){t.style({\\\"font-family\\\":'\\\"Open Sans\\\", Arial, sans-serif',\\\"font-size\\\":\\\"12px\\\",fill:c.defaultLine,\\\"pointer-events\\\":\\\"all\\\"}).each(function(){var t=n.select(this);t.append(\\\"tspan\\\").classed(\\\"js-link-to-tool\\\",!0),t.append(\\\"tspan\\\").classed(\\\"js-link-spacer\\\",!0),t.append(\\\"tspan\\\").classed(\\\"js-sourcelinks\\\",!0)})}),i=r.node(),a={y:e._paper.attr(\\\"height\\\")-9};document.body.contains(i)&&i.getComputedTextLength()>=e.width-20?(a[\\\"text-anchor\\\"]=\\\"start\\\",a.x=5):(a[\\\"text-anchor\\\"]=\\\"end\\\",a.x=e._paper.attr(\\\"width\\\")-7),r.attr(a);var o=r.select(\\\".js-link-to-tool\\\"),s=r.select(\\\".js-link-spacer\\\"),u=r.select(\\\".js-sourcelinks\\\");t._context.showSources&&t._context.showSources(t),t._context.showLink&&function(t,e){e.text(\\\"\\\");var r=e.append(\\\"a\\\").attr({\\\"xlink:xlink:href\\\":\\\"#\\\",class:\\\"link--impt link--embedview\\\",\\\"font-weight\\\":\\\"bold\\\"}).text(t._context.linkText+\\\" \\\"+String.fromCharCode(187));if(t._context.sendData)r.on(\\\"click\\\",function(){v.sendDataToCloud(t)});else{var n=window.location.pathname.split(\\\"/\\\"),i=window.location.search;r.attr({\\\"xlink:xlink:show\\\":\\\"new\\\",\\\"xlink:xlink:href\\\":\\\"/\\\"+n[2].split(\\\".\\\")[0]+\\\"/\\\"+n[1]+i})}}(t,o),s.text(o.text()&&u.text()?\\\" - \\\":\\\"\\\")}},v.sendDataToCloud=function(t){t.emit(\\\"plotly_beforeexport\\\");var e=(window.PLOTLYENV||{}).BASE_URL||t._context.plotlyServerURL,r=n.select(t).append(\\\"div\\\").attr(\\\"id\\\",\\\"hiddenform\\\").style(\\\"display\\\",\\\"none\\\"),i=r.append(\\\"form\\\").attr({action:e+\\\"/external\\\",method:\\\"post\\\",target:\\\"_blank\\\"});return i.append(\\\"input\\\").attr({type:\\\"text\\\",name:\\\"data\\\"}).node().value=v.graphJson(t,!1,\\\"keepdata\\\"),i.node().submit(),r.remove(),t.emit(\\\"plotly_afterexport\\\"),!1};var x=[\\\"days\\\",\\\"shortDays\\\",\\\"months\\\",\\\"shortMonths\\\",\\\"periods\\\",\\\"dateTime\\\",\\\"date\\\",\\\"time\\\",\\\"decimal\\\",\\\"thousands\\\",\\\"grouping\\\",\\\"currency\\\"],b=[\\\"year\\\",\\\"month\\\",\\\"dayMonth\\\",\\\"dayMonthYear\\\"];function _(t,e){var r=t._context.locale,n=!1,i={};function o(t){for(var r=!0,a=0;a<e.length;a++){var o=e[a];i[o]||(t[o]?i[o]=t[o]:r=!1)}r&&(n=!0)}for(var s=0;s<2;s++){for(var l=t._context.locales,c=0;c<2;c++){var u=(l[r]||{}).format;if(u&&(o(u),n))break;l=a.localeRegistry}var f=r.split(\\\"-\\\")[0];if(n||f===r)break;r=f}return n||o(a.localeRegistry.en.format),i}function w(t,e){var r={_fullLayout:e},n=\\\"x\\\"===t._id.charAt(0),i=t._mainAxis._anchorAxis,a=\\\"\\\",o=\\\"\\\",s=\\\"\\\";if(i&&(s=i._mainAxis._id,a=n?t._id+s:s+t._id),!a||!e._plots[a]){a=\\\"\\\";for(var l=t._counterAxes,c=0;c<l.length;c++){var u=l[c],h=n?t._id+u:u+t._id;o||(o=h);var p=f.getFromId(r,u);if(s&&p.overlaying===s){a=h;break}}}return a||o}function k(t){var e=t.transforms;if(Array.isArray(e)&&e.length)for(var r=0;r<e.length;r++){var n=e[r],i=n._module||m[n.type];if(i&&i.makesData)return!0}return!1}function T(t,e,r,n){for(var i=t.transforms,a=[t],o=0;o<i.length;o++){var s=i[o],l=m[s.type];l&&l.transform&&(a=l.transform(a,{transform:s,fullTrace:t,fullData:e,layout:r,fullLayout:n,transformIndex:o}))}return a}function A(t){var e=t.margin;if(!t._size){var r=t._size={l:Math.round(e.l),r:Math.round(e.r),t:Math.round(e.t),b:Math.round(e.b),p:Math.round(e.pad)};r.w=Math.round(t.width)-r.l-r.r,r.h=Math.round(t.height)-r.t-r.b}t._pushmargin||(t._pushmargin={}),t._pushmarginIds||(t._pushmarginIds={})}v.supplyDefaults=function(t,e){var r=e&&e.skipUpdateCalc,i=t._fullLayout||{};if(i._skipDefaults)delete i._skipDefaults;else{var o,s=t._fullLayout={},c=t.layout||{},u=t._fullData||[],f=t._fullData=[],h=t.data||[],p=t.calcdata||[],m=t._context||{};t._transitionData||v.createTransitionData(t),s._dfltTitle={plot:g(t,\\\"Click to enter Plot title\\\"),x:g(t,\\\"Click to enter X axis title\\\"),y:g(t,\\\"Click to enter Y axis title\\\"),colorbar:g(t,\\\"Click to enter Colorscale title\\\"),annotation:g(t,\\\"new text\\\")},s._traceWord=g(t,\\\"trace\\\");var y=_(t,x);if(s._mapboxAccessToken=m.mapboxAccessToken,i._initialAutoSizeIsDone){var w=i.width,k=i.height;v.supplyLayoutGlobalDefaults(c,s,y),c.width||(s.width=w),c.height||(s.height=k),v.sanitizeMargins(s)}else{v.supplyLayoutGlobalDefaults(c,s,y);var T=!c.width||!c.height,M=s.autosize,S=m.autosizable;T&&(M||S)?v.plotAutoSize(t,c,s):T&&v.sanitizeMargins(s),!M&&T&&(c.width=s.width,c.height=s.height)}s._d3locale=function(t,e){return t.decimal=e.charAt(0),t.thousands=e.charAt(1),n.locale(t)}(y,s.separators),s._extraFormat=_(t,b),s._initialAutoSizeIsDone=!0,s._dataLength=h.length,s._modules=[],s._visibleModules=[],s._basePlotModules=[];var E=s._subplots=function(){var t,e,r=a.collectableSubplotTypes,n={};if(!r){r=[];var i=a.subplotsRegistry;for(var o in i){var s=i[o],c=s.attr;if(c&&(r.push(o),Array.isArray(c)))for(e=0;e<c.length;e++)l.pushUnique(r,c[e])}}for(t=0;t<r.length;t++)n[r[t]]=[];return n}(),C=s._splomAxes={x:{},y:{}},L=s._splomSubplots={};s._splomGridDflt={},s._scatterStackOpts={},s._firstScatter={},s._alignmentOpts={},s._colorAxes={},s._requestRangeslider={},s._traceUids=function(t,e){var r,n,i=e.length,a=[];for(r=0;r<t.length;r++){var o=t[r]._fullInput;o!==n&&a.push(o),n=o}var s=a.length,c=new Array(i),u={};function f(t,e){c[e]=t,u[t]=1}function h(t,e){if(t&&\\\"string\\\"==typeof t&&!u[t])return f(t,e),!0}for(r=0;r<i;r++){var p=e[r].uid;\\\"number\\\"==typeof p&&(p=String(p)),h(p,r)||(r<s&&h(a[r].uid,r)||f(l.randstr(u),r))}return c}(u,h),s._globalTransforms=(t._context||{}).globalTransforms,v.supplyDataDefaults(h,f,c,s);var z=Object.keys(C.x),O=Object.keys(C.y);if(z.length>1&&O.length>1){for(a.getComponentMethod(\\\"grid\\\",\\\"sizeDefaults\\\")(c,s),o=0;o<z.length;o++)l.pushUnique(E.xaxis,z[o]);for(o=0;o<O.length;o++)l.pushUnique(E.yaxis,O[o]);for(var I in L)l.pushUnique(E.cartesian,I)}if(s._has=v._hasPlotType.bind(s),u.length===f.length)for(o=0;o<f.length;o++)d(f[o],u[o]);v.supplyLayoutModuleDefaults(c,s,f,t._transitionData);var D=s._visibleModules,P=[];for(o=0;o<D.length;o++){var R=D[o].crossTraceDefaults;R&&l.pushUnique(P,R)}for(o=0;o<P.length;o++)P[o](f,s);s._hasOnlyLargeSploms=1===s._basePlotModules.length&&\\\"splom\\\"===s._basePlotModules[0].name&&z.length>15&&O.length>15&&0===s.shapes.length&&0===s.images.length,s._hasCartesian=s._has(\\\"cartesian\\\"),s._hasGeo=s._has(\\\"geo\\\"),s._hasGL3D=s._has(\\\"gl3d\\\"),s._hasGL2D=s._has(\\\"gl2d\\\"),s._hasTernary=s._has(\\\"ternary\\\"),s._hasPie=s._has(\\\"pie\\\"),v.linkSubplots(f,s,u,i),v.cleanPlot(f,s,u,i),i._zoomlayer&&!t._dragging&&i._zoomlayer.selectAll(\\\".select-outline\\\").remove(),function(t,e){var r,n=[];e.meta&&(r=e._meta={meta:e.meta,layout:{meta:e.meta}});for(var i=0;i<t.length;i++){var a=t[i];a.meta?n[a.index]=a._meta={meta:a.meta}:e.meta&&(a._meta={meta:e.meta}),e.meta&&(a._meta.layout={meta:e.meta})}n.length&&(r||(r=e._meta={}),r.data=n)}(f,s),d(s,i),a.getComponentMethod(\\\"colorscale\\\",\\\"crossTraceDefaults\\\")(f,s),s._preGUI||(s._preGUI={}),s._tracePreGUI||(s._tracePreGUI={});var F,B=s._tracePreGUI,N={};for(F in B)N[F]=\\\"old\\\";for(o=0;o<f.length;o++)N[F=f[o]._fullInput.uid]||(B[F]={}),N[F]=\\\"new\\\";for(F in N)\\\"old\\\"===N[F]&&delete B[F];A(s),a.getComponentMethod(\\\"rangeslider\\\",\\\"makeData\\\")(s),r||p.length!==f.length||v.supplyDefaultsUpdateCalc(p,f)}},v.supplyDefaultsUpdateCalc=function(t,e){for(var r=0;r<e.length;r++){var n=e[r],i=(t[r]||[])[0];if(i&&i.trace){var a=i.trace;if(a._hasCalcTransform){var o,s,c,u=a._arrayAttrs;for(o=0;o<u.length;o++)s=u[o],c=l.nestedProperty(a,s).get().slice(),l.nestedProperty(n,s).set(c)}i.trace=n}}},v.createTransitionData=function(t){t._transitionData||(t._transitionData={}),t._transitionData._frames||(t._transitionData._frames=[]),t._transitionData._frameHash||(t._transitionData._frameHash={}),t._transitionData._counter||(t._transitionData._counter=0),t._transitionData._interruptCallbacks||(t._transitionData._interruptCallbacks=[])},v._hasPlotType=function(t){var e,r=this._basePlotModules||[];for(e=0;e<r.length;e++)if(r[e].name===t)return!0;var n=this._modules||[];for(e=0;e<n.length;e++){var i=n[e].name;if(i===t)return!0;var o=a.modules[i];if(o&&o.categories[t])return!0}return!1},v.cleanPlot=function(t,e,r,n){var i,a,o=n._basePlotModules||[];for(i=0;i<o.length;i++){var s=o[i];s.clean&&s.clean(t,e,r,n)}var l=n._has&&n._has(\\\"gl\\\"),c=e._has&&e._has(\\\"gl\\\");l&&!c&&void 0!==n._glcontainer&&(n._glcontainer.selectAll(\\\".gl-canvas\\\").remove(),n._glcontainer.selectAll(\\\".no-webgl\\\").remove(),n._glcanvas=null);var u=!!n._infolayer;t:for(i=0;i<r.length;i++){var f=r[i].uid;for(a=0;a<t.length;a++){if(f===t[a].uid)continue t}u&&n._infolayer.select(\\\".cb\\\"+f).remove()}},v.linkSubplots=function(t,e,r,n){var i,a,o=n._plots||{},s=e._plots={},c=e._subplots,u={_fullData:t,_fullLayout:e},h=c.cartesian.concat(c.gl2d||[]);for(i=0;i<h.length;i++){var p,d=h[i],g=o[d],v=f.getFromId(u,d,\\\"x\\\"),m=f.getFromId(u,d,\\\"y\\\");for(g?p=s[d]=g:(p=s[d]={}).id=d,v._counterAxes.push(m._id),m._counterAxes.push(v._id),v._subplotsWith.push(d),m._subplotsWith.push(d),p.xaxis=v,p.yaxis=m,p._hasClipOnAxisFalse=!1,a=0;a<t.length;a++){var y=t[a];if(y.xaxis===p.xaxis._id&&y.yaxis===p.yaxis._id&&!1===y.cliponaxis){p._hasClipOnAxisFalse=!0;break}}}var x,b=f.list(u,null,!0);for(i=0;i<b.length;i++){var _=null;(x=b[i]).overlaying&&(_=f.getFromId(u,x.overlaying))&&_.overlaying&&(x.overlaying=!1,_=null),x._mainAxis=_||x,_&&(x.domain=_.domain.slice()),x._anchorAxis=\\\"free\\\"===x.anchor?null:f.getFromId(u,x.anchor)}for(i=0;i<b.length;i++)(x=b[i])._counterAxes.sort(f.idSort),x._subplotsWith.sort(l.subplotSort),x._mainSubplot=w(x,e)},v.clearExpandedTraceDefaultColors=function(t){var e,r,n;for(r=[],(e=t._module._colorAttrs)||(t._module._colorAttrs=e=[],o.crawl(t._module.attributes,function(t,n,i,a){r[a]=n,r.length=a+1,\\\"color\\\"===t.valType&&void 0===t.dflt&&e.push(r.join(\\\".\\\"))})),n=0;n<e.length;n++){l.nestedProperty(t,\\\"_input.\\\"+e[n]).get()||l.nestedProperty(t,e[n]).set(null)}},v.supplyDataDefaults=function(t,e,r,n){var i,o,c,u=n._modules,f=n._visibleModules,h=n._basePlotModules,p=0,g=0;function m(t){e.push(t);var r=t._module;r&&(l.pushUnique(u,r),!0===t.visible&&l.pushUnique(f,r),l.pushUnique(h,t._module.basePlotModule),p++,!1!==t._input.visible&&g++)}n._transformModules=[];var y={},x=[],b=(r.template||{}).data||{},_=s.traceTemplater(b);for(i=0;i<t.length;i++){if(c=t[i],(o=_.newTrace(c)).uid=n._traceUids[i],v.supplyTraceDefaults(c,o,g,n,i),o.index=i,o._input=c,o._expandedIndex=p,o.transforms&&o.transforms.length)for(var w=!1!==c.visible&&!1===o.visible,k=T(o,e,r,n),A=0;A<k.length;A++){var M=k[A],S={_template:o._template,type:o.type,uid:o.uid+A};w&&!1===M.visible&&delete M.visible,v.supplyTraceDefaults(M,S,p,n,i),d(S,M),S.index=i,S._input=c,S._fullInput=o,S._expandedIndex=p,S._expandedInput=M,m(S)}else o._fullInput=o,o._expandedInput=o,m(o);a.traceIs(o,\\\"carpetAxis\\\")&&(y[o.carpet]=o),a.traceIs(o,\\\"carpetDependent\\\")&&x.push(i)}for(i=0;i<x.length;i++)if((o=e[x[i]]).visible){var E=y[o.carpet];o._carpet=E,E&&E.visible?(o.xaxis=E.xaxis,o.yaxis=E.yaxis):o.visible=!1}},v.supplyAnimationDefaults=function(t){var e;t=t||{};var r={};function n(e,n){return l.coerce(t||{},r,h,e,n)}if(n(\\\"mode\\\"),n(\\\"direction\\\"),n(\\\"fromcurrent\\\"),Array.isArray(t.frame))for(r.frame=[],e=0;e<t.frame.length;e++)r.frame[e]=v.supplyAnimationFrameDefaults(t.frame[e]||{});else r.frame=v.supplyAnimationFrameDefaults(t.frame||{});if(Array.isArray(t.transition))for(r.transition=[],e=0;e<t.transition.length;e++)r.transition[e]=v.supplyAnimationTransitionDefaults(t.transition[e]||{});else r.transition=v.supplyAnimationTransitionDefaults(t.transition||{});return r},v.supplyAnimationFrameDefaults=function(t){var e={};function r(r,n){return l.coerce(t||{},e,h.frame,r,n)}return r(\\\"duration\\\"),r(\\\"redraw\\\"),e},v.supplyAnimationTransitionDefaults=function(t){var e={};function r(r,n){return l.coerce(t||{},e,h.transition,r,n)}return r(\\\"duration\\\"),r(\\\"easing\\\"),e},v.supplyFrameDefaults=function(t){var e={};function r(r,n){return l.coerce(t,e,p,r,n)}return r(\\\"group\\\"),r(\\\"name\\\"),r(\\\"traces\\\"),r(\\\"baseframe\\\"),r(\\\"data\\\"),r(\\\"layout\\\"),e},v.supplyTraceDefaults=function(t,e,r,n,i){var o,s=n.colorway||c.defaults,u=s[r%s.length];function f(r,n){return l.coerce(t,e,v.attributes,r,n)}var h=f(\\\"visible\\\");f(\\\"type\\\"),f(\\\"name\\\",n._traceWord+\\\" \\\"+i),f(\\\"uirevision\\\",n.uirevision);var p=v.getModule(e);if(e._module=p,p){var d=p.basePlotModule,g=d.attr,m=d.attributes;if(g&&m){var y=n._subplots,x=\\\"\\\";if(\\\"gl2d\\\"!==d.name||h){if(Array.isArray(g))for(o=0;o<g.length;o++){var b=g[o],_=l.coerce(t,e,m,b);y[b]&&l.pushUnique(y[b],_),x+=_}else x=l.coerce(t,e,m,g);y[d.name]&&l.pushUnique(y[d.name],x)}}}return h&&(f(\\\"customdata\\\"),f(\\\"ids\\\"),f(\\\"meta\\\"),a.traceIs(e,\\\"showLegend\\\")?(e._dfltShowLegend=!0,f(\\\"showlegend\\\"),f(\\\"legendgroup\\\")):e._dfltShowLegend=!1,p&&p.supplyDefaults(t,e,u,n),a.traceIs(e,\\\"noOpacity\\\")||f(\\\"opacity\\\"),a.traceIs(e,\\\"notLegendIsolatable\\\")&&(e.visible=!!e.visible),a.traceIs(e,\\\"noHover\\\")||(e.hovertemplate||l.coerceHoverinfo(t,e,n),\\\"parcats\\\"!==e.type&&a.getComponentMethod(\\\"fx\\\",\\\"supplyDefaults\\\")(t,e,u,n)),p&&p.selectPoints&&f(\\\"selectedpoints\\\"),v.supplyTransformDefaults(t,e,n)),e},v.hasMakesDataTransform=k,v.supplyTransformDefaults=function(t,e,r){if(e._length||k(t)){var n=r._globalTransforms||[],i=r._transformModules||[];if(Array.isArray(t.transforms)||0!==n.length)for(var a=t.transforms||[],o=n.concat(a),s=e.transforms=[],c=0;c<o.length;c++){var u,f=o[c],h=f.type,p=m[h],d=!(f._module&&f._module===p),g=p&&\\\"function\\\"==typeof p.transform;p||l.warn(\\\"Unrecognized transform type \\\"+h+\\\".\\\"),p&&p.supplyDefaults&&(d||g)?((u=p.supplyDefaults(f,e,r,t)).type=h,u._module=p,l.pushUnique(i,p)):u=l.extendFlat({},f),s.push(u)}}},v.supplyLayoutGlobalDefaults=function(t,e,r){function n(r,n){return l.coerce(t,e,v.layoutAttributes,r,n)}var i=t.template;l.isPlainObject(i)&&(e.template=i,e._template=i.layout,e._dataTemplate=i.data);var o=l.coerceFont(n,\\\"font\\\");n(\\\"title.text\\\",e._dfltTitle.plot),l.coerceFont(n,\\\"title.font\\\",{family:o.family,size:Math.round(1.4*o.size),color:o.color}),n(\\\"title.xref\\\"),n(\\\"title.yref\\\"),n(\\\"title.x\\\"),n(\\\"title.y\\\"),n(\\\"title.xanchor\\\"),n(\\\"title.yanchor\\\"),n(\\\"title.pad.t\\\"),n(\\\"title.pad.r\\\"),n(\\\"title.pad.b\\\"),n(\\\"title.pad.l\\\"),n(\\\"autosize\\\",!(t.width&&t.height)),n(\\\"width\\\"),n(\\\"height\\\"),n(\\\"margin.l\\\"),n(\\\"margin.r\\\"),n(\\\"margin.t\\\"),n(\\\"margin.b\\\"),n(\\\"margin.pad\\\"),n(\\\"margin.autoexpand\\\"),t.width&&t.height&&v.sanitizeMargins(e),a.getComponentMethod(\\\"grid\\\",\\\"sizeDefaults\\\")(t,e),n(\\\"paper_bgcolor\\\"),n(\\\"separators\\\",r.decimal+r.thousands),n(\\\"hidesources\\\"),n(\\\"colorway\\\"),n(\\\"datarevision\\\");var s=n(\\\"uirevision\\\");n(\\\"editrevision\\\",s),n(\\\"selectionrevision\\\",s),n(\\\"modebar.orientation\\\"),n(\\\"modebar.bgcolor\\\",c.addOpacity(e.paper_bgcolor,.5));var u=c.contrast(c.rgb(e.modebar.bgcolor));n(\\\"modebar.color\\\",c.addOpacity(u,.3)),n(\\\"modebar.activecolor\\\",c.addOpacity(u,.7)),n(\\\"modebar.uirevision\\\",s),n(\\\"meta\\\"),l.isPlainObject(t.transition)&&(n(\\\"transition.duration\\\"),n(\\\"transition.easing\\\"),n(\\\"transition.ordering\\\")),a.getComponentMethod(\\\"calendars\\\",\\\"handleDefaults\\\")(t,e,\\\"calendar\\\"),a.getComponentMethod(\\\"fx\\\",\\\"supplyLayoutGlobalDefaults\\\")(t,e,n)},v.plotAutoSize=function(t,e,r){var n,a,o=t._context||{},s=o.frameMargins,c=l.isPlotDiv(t);if(c&&t.emit(\\\"plotly_autosize\\\"),o.fillFrame)n=window.innerWidth,a=window.innerHeight,document.body.style.overflow=\\\"hidden\\\";else{var u=c?window.getComputedStyle(t):{};if(n=parseFloat(u.width)||parseFloat(u.maxWidth)||r.width,a=parseFloat(u.height)||parseFloat(u.maxHeight)||r.height,i(s)&&s>0){var f=1-2*s;n=Math.round(f*n),a=Math.round(f*a)}}var h=v.layoutAttributes.width.min,p=v.layoutAttributes.height.min;n<h&&(n=h),a<p&&(a=p);var d=!e.width&&Math.abs(r.width-n)>1,g=!e.height&&Math.abs(r.height-a)>1;(g||d)&&(d&&(r.width=n),g&&(r.height=a)),t._initialAutoSize||(t._initialAutoSize={width:n,height:a}),v.sanitizeMargins(r)},v.supplyLayoutModuleDefaults=function(t,e,r,n){var i,o,s,c=a.componentsRegistry,u=e._basePlotModules,f=a.subplotsRegistry.cartesian;for(i in c)(s=c[i]).includeBasePlot&&s.includeBasePlot(t,e);for(var h in u.length||u.push(f),e._has(\\\"cartesian\\\")&&(a.getComponentMethod(\\\"grid\\\",\\\"contentDefaults\\\")(t,e),f.finalizeSubplots(t,e)),e._subplots)e._subplots[h].sort(l.subplotSort);for(o=0;o<u.length;o++)(s=u[o]).supplyLayoutDefaults&&s.supplyLayoutDefaults(t,e,r);var p=e._modules;for(o=0;o<p.length;o++)(s=p[o]).supplyLayoutDefaults&&s.supplyLayoutDefaults(t,e,r);var d=e._transformModules;for(o=0;o<d.length;o++)(s=d[o]).supplyLayoutDefaults&&s.supplyLayoutDefaults(t,e,r,n);for(i in c)(s=c[i]).supplyLayoutDefaults&&s.supplyLayoutDefaults(t,e,r)},v.purge=function(t){var e=t._fullLayout||{};void 0!==e._glcontainer&&(e._glcontainer.selectAll(\\\".gl-canvas\\\").remove(),e._glcontainer.remove(),e._glcanvas=null),void 0!==e._geocontainer&&e._geocontainer.remove(),e._modeBar&&e._modeBar.destroy(),t._transitionData&&(t._transitionData._interruptCallbacks&&(t._transitionData._interruptCallbacks.length=0),t._transitionData._animationRaf&&window.cancelAnimationFrame(t._transitionData._animationRaf)),l.clearThrottle(),l.clearResponsive(t),delete t.data,delete t.layout,delete t._fullData,delete t._fullLayout,delete t.calcdata,delete t.framework,delete t.empty,delete t.fid,delete t.undoqueue,delete t.undonum,delete t.autoplay,delete t.changed,delete t._promises,delete t._redrawTimer,delete t._hmlumcount,delete t._hmpixcount,delete t._transitionData,delete t._transitioning,delete t._initialAutoSize,delete t._transitioningWithDuration,delete t._dragging,delete t._dragged,delete t._dragdata,delete t._hoverdata,delete t._snapshotInProgress,delete t._editing,delete t._mouseDownTime,delete t._legendMouseDownTime,t.removeAllListeners&&t.removeAllListeners()},v.style=function(t){var e,r=t._fullLayout._visibleModules,n=[];for(e=0;e<r.length;e++){var i=r[e];i.style&&l.pushUnique(n,i.style)}for(e=0;e<n.length;e++)n[e](t)},v.sanitizeMargins=function(t){if(t&&t.margin){var e,r=t.width,n=t.height,i=t.margin,a=r-(i.l+i.r),o=n-(i.t+i.b);a<0&&(e=(r-1)/(i.l+i.r),i.l=Math.floor(e*i.l),i.r=Math.floor(e*i.r)),o<0&&(e=(n-1)/(i.t+i.b),i.t=Math.floor(e*i.t),i.b=Math.floor(e*i.b))}},v.clearAutoMarginIds=function(t){t._fullLayout._pushmarginIds={}},v.allowAutoMargin=function(t,e){t._fullLayout._pushmarginIds[e]=1},v.autoMargin=function(t,e,r){var n=t._fullLayout,i=n._pushmargin,a=n._pushmarginIds;if(!1!==n.margin.autoexpand){if(r){var o=r.pad;if(void 0===o){var s=n.margin;o=Math.min(12,s.l,s.r,s.t,s.b)}r.l+r.r>.5*n.width&&(r.l=r.r=0),r.b+r.t>.5*n.height&&(r.b=r.t=0);var l=void 0!==r.xl?r.xl:r.x,c=void 0!==r.xr?r.xr:r.x,u=void 0!==r.yt?r.yt:r.y,f=void 0!==r.yb?r.yb:r.y;i[e]={l:{val:l,size:r.l+o},r:{val:c,size:r.r+o},b:{val:f,size:r.b+o},t:{val:u,size:r.t+o}},a[e]=1}else delete i[e],delete a[e];n._replotting||v.doAutoMargin(t)}},v.doAutoMargin=function(t){var e=t._fullLayout;e._size||(e._size={}),A(e);var r=e._size,n=e.margin,o=l.extendFlat({},r),s=n.l,c=n.r,u=n.t,f=n.b,h=e.width,p=e.height,d=e._pushmargin,g=e._pushmarginIds;if(!1!==e.margin.autoexpand){for(var m in d)g[m]||delete d[m];for(var y in d.base={l:{val:0,size:s},r:{val:1,size:c},t:{val:1,size:u},b:{val:0,size:f}},d){var x=d[y].l||{},b=d[y].b||{},_=x.val,w=x.size,k=b.val,T=b.size;for(var M in d){if(i(w)&&d[M].r){var S=d[M].r.val,E=d[M].r.size;if(S>_){var C=(w*S+(E-h)*_)/(S-_),L=(E*(1-_)+(w-h)*(1-S))/(S-_);C>=0&&L>=0&&h-(C+L)>0&&C+L>s+c&&(s=C,c=L)}}if(i(T)&&d[M].t){var z=d[M].t.val,O=d[M].t.size;if(z>k){var I=(T*z+(O-p)*k)/(z-k),D=(O*(1-k)+(T-p)*(1-z))/(z-k);I>=0&&D>=0&&p-(D+I)>0&&I+D>f+u&&(f=I,u=D)}}}}}if(r.l=Math.round(s),r.r=Math.round(c),r.t=Math.round(u),r.b=Math.round(f),r.p=Math.round(n.pad),r.w=Math.round(h)-r.l-r.r,r.h=Math.round(p)-r.t-r.b,!e._replotting&&v.didMarginChange(o,r))return\\\"_redrawFromAutoMarginCount\\\"in e?e._redrawFromAutoMarginCount++:e._redrawFromAutoMarginCount=1,a.call(\\\"plot\\\",t)};var M=[\\\"l\\\",\\\"r\\\",\\\"t\\\",\\\"b\\\",\\\"p\\\",\\\"w\\\",\\\"h\\\"];function S(t,e,r){var n=!1;var i=[v.previousPromises,function(){if(t._transitionData)return t._transitioning=!1,function(t){var e=Promise.resolve();if(!t)return e;for(;t.length;)e=e.then(t.shift());return e}(t._transitionData._interruptCallbacks)},r.prepareFn,v.rehover,function(){return t.emit(\\\"plotly_transitioning\\\",[]),new Promise(function(i){t._transitioning=!0,e.duration>0&&(t._transitioningWithDuration=!0),t._transitionData._interruptCallbacks.push(function(){n=!0}),r.redraw&&t._transitionData._interruptCallbacks.push(function(){return a.call(\\\"redraw\\\",t)}),t._transitionData._interruptCallbacks.push(function(){t.emit(\\\"plotly_transitioninterrupted\\\",[])});var o=0,s=0;function l(){return o++,function(){var e;s++,n||s!==o||(e=i,t._transitionData&&(function(t){if(t)for(;t.length;)t.shift()}(t._transitionData._interruptCallbacks),Promise.resolve().then(function(){if(r.redraw)return a.call(\\\"redraw\\\",t)}).then(function(){t._transitioning=!1,t._transitioningWithDuration=!1,t.emit(\\\"plotly_transitioned\\\",[])}).then(e)))}}r.runFn(l),setTimeout(l())})}],o=l.syncOrAsync(i,t);return o&&o.then||(o=Promise.resolve()),o.then(function(){return t})}v.didMarginChange=function(t,e){for(var r=0;r<M.length;r++){var n=M[r],a=t[n],o=e[n];if(!i(a)||Math.abs(o-a)>1)return!0}return!1},v.graphJson=function(t,e,r,n,i){(i&&e&&!t._fullData||i&&!e&&!t._fullLayout)&&v.supplyDefaults(t);var a=i?t._fullData:t.data,o=i?t._fullLayout:t.layout,s=(t._transitionData||{})._frames;function c(t){if(\\\"function\\\"==typeof t)return null;if(l.isPlainObject(t)){var e,n,i={};for(e in t)if(\\\"function\\\"!=typeof t[e]&&-1===[\\\"_\\\",\\\"[\\\"].indexOf(e.charAt(0))){if(\\\"keepdata\\\"===r){if(\\\"src\\\"===e.substr(e.length-3))continue}else if(\\\"keepstream\\\"===r){if(\\\"string\\\"==typeof(n=t[e+\\\"src\\\"])&&n.indexOf(\\\":\\\")>0&&!l.isPlainObject(t.stream))continue}else if(\\\"keepall\\\"!==r&&\\\"string\\\"==typeof(n=t[e+\\\"src\\\"])&&n.indexOf(\\\":\\\")>0)continue;i[e]=c(t[e])}return i}return Array.isArray(t)?t.map(c):l.isTypedArray(t)?l.simpleMap(t,l.identity):l.isJSDate(t)?l.ms2DateTimeLocal(+t):t}var u={data:(a||[]).map(function(t){var r=c(t);return e&&delete r.fit,r})};return e||(u.layout=c(o)),t.framework&&t.framework.isPolar&&(u=t.framework.getConfig()),s&&(u.frames=c(s)),\\\"object\\\"===n?u:JSON.stringify(u)},v.modifyFrames=function(t,e){var r,n,i,a=t._transitionData._frames,o=t._transitionData._frameHash;for(r=0;r<e.length;r++)switch((n=e[r]).type){case\\\"replace\\\":i=n.value;var s=(a[n.index]||{}).name,l=i.name;a[n.index]=o[l]=i,l!==s&&(delete o[s],o[l]=i);break;case\\\"insert\\\":o[(i=n.value).name]=i,a.splice(n.index,0,i);break;case\\\"delete\\\":delete o[(i=a[n.index]).name],a.splice(n.index,1)}return Promise.resolve()},v.computeFrame=function(t,e){var r,n,i,a,o=t._transitionData._frameHash;if(!e)throw new Error(\\\"computeFrame must be given a string frame name\\\");var s=o[e.toString()];if(!s)return!1;for(var l=[s],c=[s.name];s.baseframe&&(s=o[s.baseframe.toString()])&&-1===c.indexOf(s.name);)l.push(s),c.push(s.name);for(var u={};s=l.pop();)if(s.layout&&(u.layout=v.extendLayout(u.layout,s.layout)),s.data){if(u.data||(u.data=[]),!(n=s.traces))for(n=[],r=0;r<s.data.length;r++)n[r]=r;for(u.traces||(u.traces=[]),r=0;r<s.data.length;r++)null!=(i=n[r])&&(-1===(a=u.traces.indexOf(i))&&(a=u.data.length,u.traces[a]=i),u.data[a]=v.extendTrace(u.data[a],s.data[r]))}return u},v.recomputeFrameHash=function(t){for(var e=t._transitionData._frameHash={},r=t._transitionData._frames,n=0;n<r.length;n++){var i=r[n];i&&i.name&&(e[i.name]=i)}},v.extendObjectWithContainers=function(t,e,r){var n,i,a,o,s,c,u,f=l.extendDeepNoArrays({},e||{}),h=l.expandObjectPaths(f),p={};if(r&&r.length)for(a=0;a<r.length;a++)void 0===(i=(n=l.nestedProperty(h,r[a])).get())?l.nestedProperty(p,r[a]).set(null):(n.set(null),l.nestedProperty(p,r[a]).set(i));if(t=l.extendDeepNoArrays(t||{},h),r&&r.length)for(a=0;a<r.length;a++)if(c=l.nestedProperty(p,r[a]).get()){for(u=(s=l.nestedProperty(t,r[a])).get(),Array.isArray(u)||(u=[],s.set(u)),o=0;o<c.length;o++){var d=c[o];u[o]=null===d?null:v.extendObjectWithContainers(u[o],d)}s.set(u)}return t},v.dataArrayContainers=[\\\"transforms\\\",\\\"dimensions\\\"],v.layoutArrayContainers=a.layoutArrayContainers,v.extendTrace=function(t,e){return v.extendObjectWithContainers(t,e,v.dataArrayContainers)},v.extendLayout=function(t,e){return v.extendObjectWithContainers(t,e,v.layoutArrayContainers)},v.transition=function(t,e,r,n,i,a){var o={redraw:i.redraw},s={},c=[];return o.prepareFn=function(){for(var i=Array.isArray(e)?e.length:0,a=n.slice(0,i),o=0;o<a.length;o++){var u=a[o],f=t._fullData[u]._module;if(f){if(f.animatable){var h=f.basePlotModule.name;s[h]||(s[h]=[]),s[h].push(u)}t.data[a[o]]=v.extendTrace(t.data[a[o]],e[o])}}var p=l.expandObjectPaths(l.extendDeepNoArrays({},r)),d=/^[xy]axis[0-9]*$/;for(var g in p)d.test(g)&&delete p[g].range;v.extendLayout(t.layout,p),delete t.calcdata,v.supplyDefaults(t),v.doCalcdata(t);var m=l.expandObjectPaths(r);if(m){var y=t._fullLayout._plots;for(var x in y){var b,_,w,k,T=y[x],A=T.xaxis,M=T.yaxis,S=A.range.slice(),E=M.range.slice();Array.isArray(m[A._name+\\\".range\\\"])?b=m[A._name+\\\".range\\\"].slice():Array.isArray((m[A._name]||{}).range)&&(b=m[A._name].range.slice()),Array.isArray(m[M._name+\\\".range\\\"])?_=m[M._name+\\\".range\\\"].slice():Array.isArray((m[M._name]||{}).range)&&(_=m[M._name].range.slice()),S&&b&&(S[0]!==b[0]||S[1]!==b[1])&&(w={xr0:S,xr1:b}),E&&_&&(E[0]!==_[0]||E[1]!==_[1])&&(k={yr0:E,yr1:_}),(w||k)&&c.push(l.extendFlat({plotinfo:T},w,k))}}return Promise.resolve()},o.runFn=function(e){var n,i,o=t._fullLayout._basePlotModules,u=c.length;if(r)for(i=0;i<o.length;i++)o[i].transitionAxes&&o[i].transitionAxes(t,c,a,e);for(var f in u?((n=l.extendFlat({},a)).duration=0,delete s.cartesian):n=a,s){var h=s[f];t._fullData[h[0]]._module.basePlotModule.plot(t,h,n,e)}},S(t,a,o)},v.transitionFromReact=function(t,e,r,n){var i=t._fullLayout,a=i.transition,o={},s=[];return o.prepareFn=function(){var t=i._plots;for(var a in o.redraw=!1,\\\"some\\\"===e.anim&&(o.redraw=!0),\\\"some\\\"===r.anim&&(o.redraw=!0),t){var c,u,f=t[a],h=f.xaxis,p=f.yaxis,d=n[h._name].range.slice(),g=n[p._name].range.slice(),v=h.range.slice(),m=p.range.slice();h.setScale(),p.setScale(),d[0]===v[0]&&d[1]===v[1]||(c={xr0:d,xr1:v}),g[0]===m[0]&&g[1]===m[1]||(u={yr0:g,yr1:m}),(c||u)&&s.push(l.extendFlat({plotinfo:f},c,u))}return Promise.resolve()},o.runFn=function(r){for(var n,i,o,c=t._fullData,u=t._fullLayout._basePlotModules,f=[],h=0;h<c.length;h++)f.push(h);function p(){for(var e=0;e<u.length;e++)u[e].transitionAxes&&u[e].transitionAxes(t,s,n,r)}function d(){for(var e=0;e<u.length;e++)u[e].plot(t,o,i,r)}s.length&&e.anim?\\\"traces first\\\"===a.ordering?(n=l.extendFlat({},a,{duration:0}),o=f,i=a,d(),setTimeout(p,a.duration)):(n=a,o=null,i=l.extendFlat({},a,{duration:0}),p(),d()):s.length?(n=a,p()):e.anim&&(o=f,i=a,d())},S(t,a,o)},v.doCalcdata=function(t,e){var r,n,i,s,c=f.list(t),h=t._fullData,p=t._fullLayout,d=new Array(h.length),g=(t.calcdata||[]).slice(0);for(t.calcdata=d,p._numBoxes=0,p._numViolins=0,p._violinScaleGroupStats={},t._hmpixcount=0,t._hmlumcount=0,p._piecolormap={},p._sunburstcolormap={},p._funnelareacolormap={},i=0;i<h.length;i++)Array.isArray(e)&&-1===e.indexOf(i)&&(d[i]=g[i]);for(i=0;i<h.length;i++)(r=h[i])._arrayAttrs=o.findArrayAttributes(r),r._extremes={};var v=p._subplots.polar||[];for(i=0;i<v.length;i++)c.push(p[v[i]].radialaxis,p[v[i]].angularaxis);var y=!1;function x(e){if(r=h[e],n=r._module,!0===r.visible&&r.transforms){if(n&&n.calc){var i=n.calc(t,r);i[0]&&i[0].t&&i[0].t._scene&&delete i[0].t._scene.dirty}for(s=0;s<r.transforms.length;s++){var a=r.transforms[s];(n=m[a.type])&&n.calcTransform&&(r._hasCalcTransform=!0,y=!0,n.calcTransform(t,r,a))}}}function b(e,i){if(r=h[e],!!(n=r._module).isContainer===i){var a=[];if(!0===r.visible&&0!==r._length){delete r._indexToPoints;var o=r.transforms||[];for(s=o.length-1;s>=0;s--)if(o[s].enabled){r._indexToPoints=o[s]._indexToPoints;break}n&&n.calc&&(a=n.calc(t,r))}Array.isArray(a)&&a[0]||(a=[{x:u,y:u}]),a[0].t||(a[0].t={}),a[0].trace=r,d[e]=a}}for(C(c,h),i=0;i<h.length;i++)b(i,!0);for(i=0;i<h.length;i++)x(i);for(y&&C(c,h),i=0;i<h.length;i++)b(i,!0);for(i=0;i<h.length;i++)b(i,!1);L(t);var _=function(t,e){var r,n,i,o,s,c=[];function u(t,r,n){var i=r._id.charAt(0);if(\\\"histogram2dcontour\\\"===t){var a=r._counterAxes[0],o=f.getFromId(e,a),s=\\\"x\\\"===i||\\\"x\\\"===a&&\\\"category\\\"===o.type,l=\\\"y\\\"===i||\\\"y\\\"===a&&\\\"category\\\"===o.type;return function(t,e){return 0===t||0===e?-1:s&&t===n[e].length-1?-1:l&&e===n.length-1?-1:(\\\"y\\\"===i?e:t)-1}}return function(t,e){return\\\"y\\\"===i?e:t}}var h={min:function(t){return l.aggNums(Math.min,null,t)},max:function(t){return l.aggNums(Math.max,null,t)},sum:function(t){return l.aggNums(function(t,e){return t+e},null,t)},total:function(t){return l.aggNums(function(t,e){return t+e},null,t)},mean:function(t){return l.mean(t)},median:function(t){return l.median(t)}};for(r=0;r<t.length;r++){var p=t[r];if(\\\"category\\\"===p.type){var d=p.categoryorder.match(E);if(d){var g=d[1],v=d[2],m=[];for(n=0;n<p._categories.length;n++)m.push([p._categories[n],[]]);for(n=0;n<p._traceIndices.length;n++){var y=p._traceIndices[n],x=e._fullData[y],b=p._id.charAt(0);if(!0===x.visible){var _=x.type;a.traceIs(x,\\\"histogram\\\")&&(delete x._xautoBinFinished,delete x._yautoBinFinished);var w=e.calcdata[y];for(i=0;i<w.length;i++){var k,T,A,M=w[i];if(\\\"splom\\\"===_){var S=x._axesDim[p._id];if(\\\"y\\\"===b){var C=x._diag[S][0];C&&(p=e._fullLayout[f.id2name(C)])}var L=M.trace.dimensions[S].values;for(o=0;o<L.length;o++)for(k=L[o],T=p._categoriesMap[k],s=0;s<M.trace.dimensions.length;s++)if(s!==S){var z=M.trace.dimensions[s];m[T][1].push(z.values[o])}}else if(\\\"scattergl\\\"===_){for(o=0;o<M.t.x.length;o++)\\\"x\\\"===b&&(k=M.t.x[o],T=k,A=M.t.y[o]),\\\"y\\\"===b&&(k=M.t.y[o],T=k,A=M.t.x[o]),m[T][1].push(A);M.t&&M.t._scene&&delete M.t._scene.dirty}else if(M.hasOwnProperty(\\\"z\\\")){A=M.z;var O=u(x.type,p,A);for(o=0;o<A.length;o++)for(s=0;s<A[o].length;s++)(T=O(s,o))+1&&m[T][1].push(A[o][s])}else for(\\\"x\\\"===b?(k=M.p+1?M.p:M.x,A=M.s||M.v||M.y):\\\"y\\\"===b&&(k=M.p+1?M.p:M.y,A=M.s||M.v||M.x),Array.isArray(A)||(A=[A]),o=0;o<A.length;o++)m[k][1].push(A[o])}}}p._categoriesValue=m;var I=[];for(n=0;n<m.length;n++)I.push([m[n][0],h[g](m[n][1])]);I.sort(function(t,e){return t[1]-e[1]}),p._categoriesAggregatedValue=I,p._initialCategories=I.map(function(t){return t[0]}),\\\"descending\\\"===v&&p._initialCategories.reverse(),c=c.concat(p.sortByInitialCategories())}}}return c}(c,t);if(_.length){for(i=0;i<_.length;i++)b(_[i],!0);for(i=0;i<_.length;i++)b(_[i],!1);L(t)}a.getComponentMethod(\\\"fx\\\",\\\"calc\\\")(t),a.getComponentMethod(\\\"errorbars\\\",\\\"calc\\\")(t)};var E=/(total|sum|min|max|mean|median) (ascending|descending)/;function C(t,e){for(var r=0;r<t.length;r++){var n=t[r];n.clearCalc(),\\\"multicategory\\\"===n.type&&n.setupMultiCategory(e)}}function L(t){var e,r,n,i=t._fullLayout,a=i._visibleModules,o={};for(r=0;r<a.length;r++){var s=a[r],c=s.crossTraceCalc;if(c){var u=s.basePlotModule.name;o[u]?l.pushUnique(o[u],c):o[u]=[c]}}for(n in o){var f=o[n],h=i._subplots[n];if(Array.isArray(h))for(e=0;e<h.length;e++){var p=h[e],d=\\\"cartesian\\\"===n?i._plots[p]:i[p];for(r=0;r<f.length;r++)f[r](t,d,p)}else for(r=0;r<f.length;r++)f[r](t)}}v.rehover=function(t){t._fullLayout._rehover&&t._fullLayout._rehover()},v.redrag=function(t){t._fullLayout._redrag&&t._fullLayout._redrag()},v.generalUpdatePerTraceModule=function(t,e,r,n){var i,a=e.traceHash,o={};for(i=0;i<r.length;i++){var s=r[i],c=s[0].trace;c.visible&&(o[c.type]=o[c.type]||[],o[c.type].push(s))}for(var u in a)if(!o[u]){var f=a[u][0];f[0].trace.visible=!1,o[u]=[f]}for(var h in o){var p=o[h];p[0][0].trace._module.plot(t,e,l.filterVisible(p),n)}e.traceHash=o}},{\\\"../components/color\\\":580,\\\"../constants/numerical\\\":680,\\\"../lib\\\":703,\\\"../plot_api/plot_schema\\\":740,\\\"../plot_api/plot_template\\\":741,\\\"../registry\\\":831,\\\"./animation_attributes\\\":746,\\\"./attributes\\\":748,\\\"./cartesian/axis_ids\\\":754,\\\"./command\\\":775,\\\"./font_attributes\\\":777,\\\"./frame_attributes\\\":778,\\\"./layout_attributes\\\":803,d3:157,\\\"fast-isnumeric\\\":224}],813:[function(t,e,r){\\\"use strict\\\";e.exports={attr:\\\"subplot\\\",name:\\\"polar\\\",axisNames:[\\\"angularaxis\\\",\\\"radialaxis\\\"],axisName2dataArray:{angularaxis:\\\"theta\\\",radialaxis:\\\"r\\\"},layerNames:[\\\"draglayer\\\",\\\"plotbg\\\",\\\"backplot\\\",\\\"angular-grid\\\",\\\"radial-grid\\\",\\\"frontplot\\\",\\\"angular-line\\\",\\\"radial-line\\\",\\\"angular-axis\\\",\\\"radial-axis\\\"],radialDragBoxSize:50,angularDragBoxSize:30,cornerLen:25,cornerHalfWidth:2,MINDRAG:8,MINZOOM:20,OFFEDGE:20}},{}],814:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../lib/polygon\\\").tester,a=n.findIndexOfMin,o=n.isAngleInsideSector,s=n.angleDelta,l=n.angleDist;function c(t,e,r,n){var i,a,o=n[0],s=n[1],l=f(Math.sin(e)-Math.sin(t)),c=f(Math.cos(e)-Math.cos(t)),u=Math.tan(r),h=f(1/u),p=l/c,d=s-p*o;return h?l&&c?a=u*(i=d/(u-p)):c?(i=s*h,a=s):(i=o,a=o*u):l&&c?(i=0,a=d):c?(i=0,a=s):i=a=NaN,[i,a]}function u(t,e,r,i){return n.isFullCircle([e,r])?function(t,e){var r,n=e.length,i=new Array(n+1);for(r=0;r<n;r++){var a=e[r];i[r]=[t*Math.cos(a),t*Math.sin(a)]}return i[r]=i[0].slice(),i}(t,i):function(t,e,r,i){var s,u,f=i.length,h=[];function p(e){return[t*Math.cos(e),t*Math.sin(e)]}function d(t,e,r){return c(t,e,r,p(t))}function g(t){return n.mod(t,f)}function v(t){return o(t,[e,r])}var m=a(i,function(t){return v(t)?l(t,e):1/0}),y=d(i[m],i[g(m-1)],e);for(h.push(y),s=m,u=0;u<f;s++,u++){var x=i[g(s)];if(!v(x))break;h.push(p(x))}var b=a(i,function(t){return v(t)?l(t,r):1/0}),_=d(i[b],i[g(b+1)],r);return h.push(_),h.push([0,0]),h.push(h[0].slice()),h}(t,e,r,i)}function f(t){return Math.abs(t)>1e-10?t:0}function h(t,e,r){e=e||0,r=r||0;for(var n=t.length,i=new Array(n),a=0;a<n;a++){var o=t[a];i[a]=[e+o[0],r-o[1]]}return i}e.exports={isPtInsidePolygon:function(t,e,r,n,a){if(!o(e,n))return!1;var s,l;r[0]<r[1]?(s=r[0],l=r[1]):(s=r[1],l=r[0]);var c=i(u(s,n[0],n[1],a)),f=i(u(l,n[0],n[1],a)),h=[t*Math.cos(e),t*Math.sin(e)];return f.contains(h)&&!c.contains(h)},findPolygonOffset:function(t,e,r,n){for(var i=1/0,a=1/0,o=u(t,e,r,n),s=0;s<o.length;s++){var l=o[s];i=Math.min(i,l[0]),a=Math.min(a,-l[1])}return[i,a]},findEnclosingVertexAngles:function(t,e){var r=a(e,function(e){var r=s(e,t);return r>0?r:1/0}),i=n.mod(r+1,e.length);return[e[r],e[i]]},findIntersectionXY:c,findXYatLength:function(t,e,r,n){var i=-e*r,a=e*e+1,o=2*(e*i-r),s=i*i+r*r-t*t,l=Math.sqrt(o*o-4*a*s),c=(-o+l)/(2*a),u=(-o-l)/(2*a);return[[c,e*c+i+n],[u,e*u+i+n]]},clampTiny:f,pathPolygon:function(t,e,r,n,i,a){return\\\"M\\\"+h(u(t,e,r,n),i,a).join(\\\"L\\\")},pathPolygonAnnulus:function(t,e,r,n,i,a,o){var s,l;t<e?(s=t,l=e):(s=e,l=t);var c=h(u(s,r,n,i),a,o);return\\\"M\\\"+h(u(l,r,n,i),a,o).reverse().join(\\\"L\\\")+\\\"M\\\"+c.join(\\\"L\\\")}}},{\\\"../../lib\\\":703,\\\"../../lib/polygon\\\":715}],815:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../get_data\\\").getSubplotCalcData,i=t(\\\"../../lib\\\").counterRegex,a=t(\\\"./polar\\\"),o=t(\\\"./constants\\\"),s=o.attr,l=o.name,c=i(l),u={};u[s]={valType:\\\"subplotid\\\",dflt:l,editType:\\\"calc\\\"},e.exports={attr:s,name:l,idRoot:l,idRegex:c,attrRegex:c,attributes:u,layoutAttributes:t(\\\"./layout_attributes\\\"),supplyLayoutDefaults:t(\\\"./layout_defaults\\\"),plot:function(t){for(var e=t._fullLayout,r=t.calcdata,i=e._subplots[l],o=0;o<i.length;o++){var s=i[o],c=n(r,l,s),u=e[s]._subplot;u||(u=a(t,s),e[s]._subplot=u),u.plot(c,e,t._promises)}},clean:function(t,e,r,n){for(var i=n._subplots[l]||[],a=n._has&&n._has(\\\"gl\\\"),o=e._has&&e._has(\\\"gl\\\"),s=a&&!o,c=0;c<i.length;c++){var u=i[c],f=n[u]._subplot;if(!e[u]&&f)for(var h in f.framework.remove(),f.layers[\\\"radial-axis-title\\\"].remove(),f.clipPaths)f.clipPaths[h].remove();s&&f._scene&&(f._scene.destroy(),f._scene=null)}},toSVG:t(\\\"../cartesian\\\").toSVG}},{\\\"../../lib\\\":703,\\\"../cartesian\\\":762,\\\"../get_data\\\":786,\\\"./constants\\\":813,\\\"./layout_attributes\\\":816,\\\"./layout_defaults\\\":817,\\\"./polar\\\":824}],816:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/color/attributes\\\"),i=t(\\\"../cartesian/layout_attributes\\\"),a=t(\\\"../domain\\\").attributes,o=t(\\\"../../lib\\\").extendFlat,s=t(\\\"../../plot_api/edit_types\\\").overrideAll,l=s({color:i.color,showline:o({},i.showline,{dflt:!0}),linecolor:i.linecolor,linewidth:i.linewidth,showgrid:o({},i.showgrid,{dflt:!0}),gridcolor:i.gridcolor,gridwidth:i.gridwidth},\\\"plot\\\",\\\"from-root\\\"),c=s({tickmode:i.tickmode,nticks:i.nticks,tick0:i.tick0,dtick:i.dtick,tickvals:i.tickvals,ticktext:i.ticktext,ticks:i.ticks,ticklen:i.ticklen,tickwidth:i.tickwidth,tickcolor:i.tickcolor,showticklabels:i.showticklabels,showtickprefix:i.showtickprefix,tickprefix:i.tickprefix,showticksuffix:i.showticksuffix,ticksuffix:i.ticksuffix,showexponent:i.showexponent,exponentformat:i.exponentformat,separatethousands:i.separatethousands,tickfont:i.tickfont,tickangle:i.tickangle,tickformat:i.tickformat,tickformatstops:i.tickformatstops,layer:i.layer},\\\"plot\\\",\\\"from-root\\\"),u={visible:o({},i.visible,{dflt:!0}),type:o({},i.type,{values:[\\\"-\\\",\\\"linear\\\",\\\"log\\\",\\\"date\\\",\\\"category\\\"]}),autorange:o({},i.autorange,{editType:\\\"plot\\\"}),rangemode:{valType:\\\"enumerated\\\",values:[\\\"tozero\\\",\\\"nonnegative\\\",\\\"normal\\\"],dflt:\\\"tozero\\\",editType:\\\"calc\\\"},range:o({},i.range,{items:[{valType:\\\"any\\\",editType:\\\"plot\\\",impliedEdits:{\\\"^autorange\\\":!1}},{valType:\\\"any\\\",editType:\\\"plot\\\",impliedEdits:{\\\"^autorange\\\":!1}}],editType:\\\"plot\\\"}),categoryorder:i.categoryorder,categoryarray:i.categoryarray,angle:{valType:\\\"angle\\\",editType:\\\"plot\\\"},side:{valType:\\\"enumerated\\\",values:[\\\"clockwise\\\",\\\"counterclockwise\\\"],dflt:\\\"clockwise\\\",editType:\\\"plot\\\"},title:s(i.title,\\\"plot\\\",\\\"from-root\\\"),hoverformat:i.hoverformat,uirevision:{valType:\\\"any\\\",editType:\\\"none\\\"},editType:\\\"calc\\\",_deprecated:{title:i._deprecated.title,titlefont:i._deprecated.titlefont}};u.title.text.dflt=\\\"\\\",o(u,l,c);var f={visible:o({},i.visible,{dflt:!0}),type:{valType:\\\"enumerated\\\",values:[\\\"-\\\",\\\"linear\\\",\\\"category\\\"],dflt:\\\"-\\\",editType:\\\"calc\\\",_noTemplating:!0},categoryorder:i.categoryorder,categoryarray:i.categoryarray,thetaunit:{valType:\\\"enumerated\\\",values:[\\\"radians\\\",\\\"degrees\\\"],dflt:\\\"degrees\\\",editType:\\\"calc\\\"},period:{valType:\\\"number\\\",editType:\\\"calc\\\",min:0},direction:{valType:\\\"enumerated\\\",values:[\\\"counterclockwise\\\",\\\"clockwise\\\"],dflt:\\\"counterclockwise\\\",editType:\\\"calc\\\"},rotation:{valType:\\\"angle\\\",editType:\\\"calc\\\"},hoverformat:i.hoverformat,uirevision:{valType:\\\"any\\\",editType:\\\"none\\\"},editType:\\\"calc\\\"};o(f,l,c),e.exports={domain:a({name:\\\"polar\\\",editType:\\\"plot\\\"}),sector:{valType:\\\"info_array\\\",items:[{valType:\\\"number\\\",editType:\\\"plot\\\"},{valType:\\\"number\\\",editType:\\\"plot\\\"}],dflt:[0,360],editType:\\\"plot\\\"},hole:{valType:\\\"number\\\",min:0,max:1,dflt:0,editType:\\\"plot\\\"},bgcolor:{valType:\\\"color\\\",editType:\\\"plot\\\",dflt:n.background},radialaxis:u,angularaxis:f,gridshape:{valType:\\\"enumerated\\\",values:[\\\"circular\\\",\\\"linear\\\"],dflt:\\\"circular\\\",editType:\\\"plot\\\"},uirevision:{valType:\\\"any\\\",editType:\\\"none\\\"},editType:\\\"calc\\\"}},{\\\"../../components/color/attributes\\\":579,\\\"../../lib\\\":703,\\\"../../plot_api/edit_types\\\":734,\\\"../cartesian/layout_attributes\\\":763,\\\"../domain\\\":776}],817:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../components/color\\\"),a=t(\\\"../../plot_api/plot_template\\\"),o=t(\\\"../subplot_defaults\\\"),s=t(\\\"../get_data\\\").getSubplotData,l=t(\\\"../cartesian/tick_value_defaults\\\"),c=t(\\\"../cartesian/tick_mark_defaults\\\"),u=t(\\\"../cartesian/tick_label_defaults\\\"),f=t(\\\"../cartesian/category_order_defaults\\\"),h=t(\\\"../cartesian/line_grid_defaults\\\"),p=t(\\\"../cartesian/axis_autotype\\\"),d=t(\\\"./layout_attributes\\\"),g=t(\\\"./set_convert\\\"),v=t(\\\"./constants\\\"),m=v.axisNames;function y(t,e,r,o){var p=r(\\\"bgcolor\\\");o.bgColor=i.combine(p,o.paper_bgcolor);var y=r(\\\"sector\\\");r(\\\"hole\\\");var b,_=s(o.fullData,v.name,o.id),w=o.layoutOut;function k(t,e){return r(b+\\\".\\\"+t,e)}for(var T=0;T<m.length;T++){b=m[T],n.isPlainObject(t[b])||(t[b]={});var A=t[b],M=a.newContainer(e,b);M._id=M._name=b,M._attr=o.id+\\\".\\\"+b,M._traceIndices=_.map(function(t){return t._expandedIndex});var S=v.axisName2dataArray[b],E=x(A,M,k,_,S);f(A,M,k,{axData:_,dataAttr:S});var C,L,z=k(\\\"visible\\\");switch(g(M,e,w),k(\\\"uirevision\\\",e.uirevision),z&&(L=(C=k(\\\"color\\\"))===A.color?C:o.font.color),M._m=1,b){case\\\"radialaxis\\\":var O=k(\\\"autorange\\\",!M.isValidRange(A.range));A.autorange=O,!O||\\\"linear\\\"!==E&&\\\"-\\\"!==E||k(\\\"rangemode\\\"),\\\"reversed\\\"===O&&(M._m=-1),k(\\\"range\\\"),M.cleanRange(\\\"range\\\",{dfltRange:[0,1]}),z&&(k(\\\"side\\\"),k(\\\"angle\\\",y[0]),k(\\\"title.text\\\"),n.coerceFont(k,\\\"title.font\\\",{family:o.font.family,size:Math.round(1.2*o.font.size),color:L}));break;case\\\"angularaxis\\\":if(\\\"date\\\"===E){n.log(\\\"Polar plots do not support date angular axes yet.\\\");for(var I=0;I<_.length;I++)_[I].visible=!1;E=A.type=M.type=\\\"linear\\\"}k(\\\"linear\\\"===E?\\\"thetaunit\\\":\\\"period\\\");var D=k(\\\"direction\\\");k(\\\"rotation\\\",{counterclockwise:0,clockwise:90}[D])}if(z)l(A,M,k,M.type),u(A,M,k,M.type,{tickSuffixDflt:\\\"degrees\\\"===M.thetaunit?\\\"\\\\xb0\\\":void 0}),c(A,M,k,{outerTicks:!0}),k(\\\"showticklabels\\\")&&(n.coerceFont(k,\\\"tickfont\\\",{family:o.font.family,size:o.font.size,color:L}),k(\\\"tickangle\\\"),k(\\\"tickformat\\\")),h(A,M,k,{dfltColor:C,bgColor:o.bgColor,blend:60,showLine:!0,showGrid:!0,noZeroLine:!0,attributes:d[b]}),k(\\\"layer\\\");\\\"category\\\"!==E&&k(\\\"hoverformat\\\"),M._input=A}\\\"category\\\"===e.angularaxis.type&&r(\\\"gridshape\\\")}function x(t,e,r,n,i){if(\\\"-\\\"===r(\\\"type\\\")){for(var a,o=0;o<n.length;o++)if(n[o].visible){a=n[o];break}a&&a[i]&&(e.type=p(a[i],\\\"gregorian\\\")),\\\"-\\\"===e.type?e.type=\\\"linear\\\":t.type=e.type}return e.type}e.exports=function(t,e,r){o(t,e,r,{type:v.name,attributes:d,handleDefaults:y,font:e.font,paper_bgcolor:e.paper_bgcolor,fullData:r,layoutOut:e})}},{\\\"../../components/color\\\":580,\\\"../../lib\\\":703,\\\"../../plot_api/plot_template\\\":741,\\\"../cartesian/axis_autotype\\\":752,\\\"../cartesian/category_order_defaults\\\":755,\\\"../cartesian/line_grid_defaults\\\":765,\\\"../cartesian/tick_label_defaults\\\":770,\\\"../cartesian/tick_mark_defaults\\\":771,\\\"../cartesian/tick_value_defaults\\\":772,\\\"../get_data\\\":786,\\\"../subplot_defaults\\\":826,\\\"./constants\\\":813,\\\"./layout_attributes\\\":816,\\\"./set_convert\\\":825}],818:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../../traces/scatter/attributes\\\"),i=n.marker,a=t(\\\"../../../lib/extend\\\").extendFlat;[\\\"Area traces are deprecated!\\\",\\\"Please switch to the *barpolar* trace type.\\\"].join(\\\" \\\");e.exports={r:a({},n.r,{}),t:a({},n.t,{}),marker:{color:a({},i.color,{}),size:a({},i.size,{}),symbol:a({},i.symbol,{}),opacity:a({},i.opacity,{}),editType:\\\"calc\\\"}}},{\\\"../../../lib/extend\\\":693,\\\"../../../traces/scatter/attributes\\\":1075}],819:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../cartesian/layout_attributes\\\"),i=t(\\\"../../../lib/extend\\\").extendFlat,a=t(\\\"../../../plot_api/edit_types\\\").overrideAll,o=[\\\"Legacy polar charts are deprecated!\\\",\\\"Please switch to *polar* subplots.\\\"].join(\\\" \\\"),s=i({},n.domain,{});function l(t,e){return i({},e,{showline:{valType:\\\"boolean\\\"},showticklabels:{valType:\\\"boolean\\\"},tickorientation:{valType:\\\"enumerated\\\",values:[\\\"horizontal\\\",\\\"vertical\\\"]},ticklen:{valType:\\\"number\\\",min:0},tickcolor:{valType:\\\"color\\\"},ticksuffix:{valType:\\\"string\\\"},endpadding:{valType:\\\"number\\\",description:o},visible:{valType:\\\"boolean\\\"}})}e.exports=a({radialaxis:l(0,{range:{valType:\\\"info_array\\\",items:[{valType:\\\"number\\\"},{valType:\\\"number\\\"}]},domain:s,orientation:{valType:\\\"number\\\"}}),angularaxis:l(0,{range:{valType:\\\"info_array\\\",items:[{valType:\\\"number\\\",dflt:0},{valType:\\\"number\\\",dflt:360}]},domain:s}),layout:{direction:{valType:\\\"enumerated\\\",values:[\\\"clockwise\\\",\\\"counterclockwise\\\"]},orientation:{valType:\\\"angle\\\"}}},\\\"plot\\\",\\\"nested\\\")},{\\\"../../../lib/extend\\\":693,\\\"../../../plot_api/edit_types\\\":734,\\\"../../cartesian/layout_attributes\\\":763}],820:[function(t,e,r){\\\"use strict\\\";(e.exports=t(\\\"./micropolar\\\")).manager=t(\\\"./micropolar_manager\\\")},{\\\"./micropolar\\\":821,\\\"./micropolar_manager\\\":822}],821:[function(t,e,r){var n=t(\\\"d3\\\"),i=t(\\\"../../../lib\\\").extendDeepAll,a=t(\\\"../../../constants/alignment\\\").MID_SHIFT,o=e.exports={version:\\\"0.2.2\\\"};o.Axis=function(){var t,e,r,s,l={data:[],layout:{}},c={},u={},f=n.dispatch(\\\"hover\\\"),h={};return h.render=function(c){return function(c){e=c||e;var f=l.data,h=l.layout;(\\\"string\\\"==typeof e||e.nodeName)&&(e=n.select(e)),e.datum(f).each(function(e,l){var c=e.slice();u={data:o.util.cloneJson(c),layout:o.util.cloneJson(h)};var f=0;c.forEach(function(t,e){t.color||(t.color=h.defaultColorRange[f],f=(f+1)%h.defaultColorRange.length),t.strokeColor||(t.strokeColor=\\\"LinePlot\\\"===t.geometry?t.color:n.rgb(t.color).darker().toString()),u.data[e].color=t.color,u.data[e].strokeColor=t.strokeColor,u.data[e].strokeDash=t.strokeDash,u.data[e].strokeSize=t.strokeSize});var p=c.filter(function(t,e){var r=t.visible;return\\\"undefined\\\"==typeof r||!0===r}),d=!1,g=p.map(function(t,e){return d=d||\\\"undefined\\\"!=typeof t.groupId,t});if(d){var v=n.nest().key(function(t,e){return\\\"undefined\\\"!=typeof t.groupId?t.groupId:\\\"unstacked\\\"}).entries(g),m=[],y=v.map(function(t,e){if(\\\"unstacked\\\"===t.key)return t.values;var r=t.values[0].r.map(function(t,e){return 0});return t.values.forEach(function(t,e,n){t.yStack=[r],m.push(r),r=o.util.sumArrays(t.r,r)}),t.values});p=n.merge(y)}p.forEach(function(t,e){t.t=Array.isArray(t.t[0])?t.t:[t.t],t.r=Array.isArray(t.r[0])?t.r:[t.r]});var x=Math.min(h.width-h.margin.left-h.margin.right,h.height-h.margin.top-h.margin.bottom)/2;x=Math.max(10,x);var b,_=[h.margin.left+x,h.margin.top+x];b=d?[0,n.max(o.util.sumArrays(o.util.arrayLast(p).r[0],o.util.arrayLast(m)))]:n.extent(o.util.flattenArray(p.map(function(t,e){return t.r}))),h.radialAxis.domain!=o.DATAEXTENT&&(b[0]=0),r=n.scale.linear().domain(h.radialAxis.domain!=o.DATAEXTENT&&h.radialAxis.domain?h.radialAxis.domain:b).range([0,x]),u.layout.radialAxis.domain=r.domain();var w,k=o.util.flattenArray(p.map(function(t,e){return t.t})),T=\\\"string\\\"==typeof k[0];T&&(k=o.util.deduplicate(k),w=k.slice(),k=n.range(k.length),p=p.map(function(t,e){var r=t;return t.t=[k],d&&(r.yStack=t.yStack),r}));var A=p.filter(function(t,e){return\\\"LinePlot\\\"===t.geometry||\\\"DotPlot\\\"===t.geometry}).length===p.length,M=null===h.needsEndSpacing?T||!A:h.needsEndSpacing,S=h.angularAxis.domain&&h.angularAxis.domain!=o.DATAEXTENT&&!T&&h.angularAxis.domain[0]>=0?h.angularAxis.domain:n.extent(k),E=Math.abs(k[1]-k[0]);A&&!T&&(E=0);var C=S.slice();M&&T&&(C[1]+=E);var L=h.angularAxis.ticksCount||4;L>8&&(L=L/(L/8)+L%8),h.angularAxis.ticksStep&&(L=(C[1]-C[0])/L);var z=h.angularAxis.ticksStep||(C[1]-C[0])/(L*(h.minorTicks+1));w&&(z=Math.max(Math.round(z),1)),C[2]||(C[2]=z);var O=n.range.apply(this,C);if(O=O.map(function(t,e){return parseFloat(t.toPrecision(12))}),s=n.scale.linear().domain(C.slice(0,2)).range(\\\"clockwise\\\"===h.direction?[0,360]:[360,0]),u.layout.angularAxis.domain=s.domain(),u.layout.angularAxis.endPadding=M?E:0,\\\"undefined\\\"==typeof(t=n.select(this).select(\\\"svg.chart-root\\\"))||t.empty()){var I=(new DOMParser).parseFromString(\\\"<svg xmlns='http://www.w3.org/2000/svg' class='chart-root'>' + '<g class='outer-group'>' + '<g class='chart-group'>' + '<circle class='background-circle'></circle>' + '<g class='geometry-group'></g>' + '<g class='radial axis-group'>' + '<circle class='outside-circle'></circle>' + '</g>' + '<g class='angular axis-group'></g>' + '<g class='guides-group'><line></line><circle r='0'></circle></g>' + '</g>' + '<g class='legend-group'></g>' + '<g class='tooltips-group'></g>' + '<g class='title-group'><text></text></g>' + '</g>' + '</svg>\\\",\\\"application/xml\\\"),D=this.appendChild(this.ownerDocument.importNode(I.documentElement,!0));t=n.select(D)}t.select(\\\".guides-group\\\").style({\\\"pointer-events\\\":\\\"none\\\"}),t.select(\\\".angular.axis-group\\\").style({\\\"pointer-events\\\":\\\"none\\\"}),t.select(\\\".radial.axis-group\\\").style({\\\"pointer-events\\\":\\\"none\\\"});var P,R=t.select(\\\".chart-group\\\"),F={fill:\\\"none\\\",stroke:h.tickColor},B={\\\"font-size\\\":h.font.size,\\\"font-family\\\":h.font.family,fill:h.font.color,\\\"text-shadow\\\":[\\\"-1px 0px\\\",\\\"1px -1px\\\",\\\"-1px 1px\\\",\\\"1px 1px\\\"].map(function(t,e){return\\\" \\\"+t+\\\" 0 \\\"+h.font.outlineColor}).join(\\\",\\\")};if(h.showLegend){P=t.select(\\\".legend-group\\\").attr({transform:\\\"translate(\\\"+[x,h.margin.top]+\\\")\\\"}).style({display:\\\"block\\\"});var N=p.map(function(t,e){var r=o.util.cloneJson(t);return r.symbol=\\\"DotPlot\\\"===t.geometry?t.dotType||\\\"circle\\\":\\\"LinePlot\\\"!=t.geometry?\\\"square\\\":\\\"line\\\",r.visibleInLegend=\\\"undefined\\\"==typeof t.visibleInLegend||t.visibleInLegend,r.color=\\\"LinePlot\\\"===t.geometry?t.strokeColor:t.color,r});o.Legend().config({data:p.map(function(t,e){return t.name||\\\"Element\\\"+e}),legendConfig:i({},o.Legend.defaultConfig().legendConfig,{container:P,elements:N,reverseOrder:h.legend.reverseOrder})})();var j=P.node().getBBox();x=Math.min(h.width-j.width-h.margin.left-h.margin.right,h.height-h.margin.top-h.margin.bottom)/2,x=Math.max(10,x),_=[h.margin.left+x,h.margin.top+x],r.range([0,x]),u.layout.radialAxis.domain=r.domain(),P.attr(\\\"transform\\\",\\\"translate(\\\"+[_[0]+x,_[1]-x]+\\\")\\\")}else P=t.select(\\\".legend-group\\\").style({display:\\\"none\\\"});t.attr({width:h.width,height:h.height}).style({opacity:h.opacity}),R.attr(\\\"transform\\\",\\\"translate(\\\"+_+\\\")\\\").style({cursor:\\\"crosshair\\\"});var V=[(h.width-(h.margin.left+h.margin.right+2*x+(j?j.width:0)))/2,(h.height-(h.margin.top+h.margin.bottom+2*x))/2];if(V[0]=Math.max(0,V[0]),V[1]=Math.max(0,V[1]),t.select(\\\".outer-group\\\").attr(\\\"transform\\\",\\\"translate(\\\"+V+\\\")\\\"),h.title&&h.title.text){var U=t.select(\\\"g.title-group text\\\").style(B).text(h.title.text),H=U.node().getBBox();U.attr({x:_[0]-H.width/2,y:_[1]-x-20})}var q=t.select(\\\".radial.axis-group\\\");if(h.radialAxis.gridLinesVisible){var G=q.selectAll(\\\"circle.grid-circle\\\").data(r.ticks(5));G.enter().append(\\\"circle\\\").attr({class:\\\"grid-circle\\\"}).style(F),G.attr(\\\"r\\\",r),G.exit().remove()}q.select(\\\"circle.outside-circle\\\").attr({r:x}).style(F);var Y=t.select(\\\"circle.background-circle\\\").attr({r:x}).style({fill:h.backgroundColor,stroke:h.stroke});function W(t,e){return s(t)%360+h.orientation}if(h.radialAxis.visible){var X=n.svg.axis().scale(r).ticks(5).tickSize(5);q.call(X).attr({transform:\\\"rotate(\\\"+h.radialAxis.orientation+\\\")\\\"}),q.selectAll(\\\".domain\\\").style(F),q.selectAll(\\\"g>text\\\").text(function(t,e){return this.textContent+h.radialAxis.ticksSuffix}).style(B).style({\\\"text-anchor\\\":\\\"start\\\"}).attr({x:0,y:0,dx:0,dy:0,transform:function(t,e){return\\\"horizontal\\\"===h.radialAxis.tickOrientation?\\\"rotate(\\\"+-h.radialAxis.orientation+\\\") translate(\\\"+[0,B[\\\"font-size\\\"]]+\\\")\\\":\\\"translate(\\\"+[0,B[\\\"font-size\\\"]]+\\\")\\\"}}),q.selectAll(\\\"g>line\\\").style({stroke:\\\"black\\\"})}var Z=t.select(\\\".angular.axis-group\\\").selectAll(\\\"g.angular-tick\\\").data(O),$=Z.enter().append(\\\"g\\\").classed(\\\"angular-tick\\\",!0);Z.attr({transform:function(t,e){return\\\"rotate(\\\"+W(t)+\\\")\\\"}}).style({display:h.angularAxis.visible?\\\"block\\\":\\\"none\\\"}),Z.exit().remove(),$.append(\\\"line\\\").classed(\\\"grid-line\\\",!0).classed(\\\"major\\\",function(t,e){return e%(h.minorTicks+1)==0}).classed(\\\"minor\\\",function(t,e){return!(e%(h.minorTicks+1)==0)}).style(F),$.selectAll(\\\".minor\\\").style({stroke:h.minorTickColor}),Z.select(\\\"line.grid-line\\\").attr({x1:h.tickLength?x-h.tickLength:0,x2:x}).style({display:h.angularAxis.gridLinesVisible?\\\"block\\\":\\\"none\\\"}),$.append(\\\"text\\\").classed(\\\"axis-text\\\",!0).style(B);var J=Z.select(\\\"text.axis-text\\\").attr({x:x+h.labelOffset,dy:a+\\\"em\\\",transform:function(t,e){var r=W(t),n=x+h.labelOffset,i=h.angularAxis.tickOrientation;return\\\"horizontal\\\"==i?\\\"rotate(\\\"+-r+\\\" \\\"+n+\\\" 0)\\\":\\\"radial\\\"==i?r<270&&r>90?\\\"rotate(180 \\\"+n+\\\" 0)\\\":null:\\\"rotate(\\\"+(r<=180&&r>0?-90:90)+\\\" \\\"+n+\\\" 0)\\\"}}).style({\\\"text-anchor\\\":\\\"middle\\\",display:h.angularAxis.labelsVisible?\\\"block\\\":\\\"none\\\"}).text(function(t,e){return e%(h.minorTicks+1)!=0?\\\"\\\":w?w[t]+h.angularAxis.ticksSuffix:t+h.angularAxis.ticksSuffix}).style(B);h.angularAxis.rewriteTicks&&J.text(function(t,e){return e%(h.minorTicks+1)!=0?\\\"\\\":h.angularAxis.rewriteTicks(this.textContent,e)});var K=n.max(R.selectAll(\\\".angular-tick text\\\")[0].map(function(t,e){return t.getCTM().e+t.getBBox().width}));P.attr({transform:\\\"translate(\\\"+[x+K,h.margin.top]+\\\")\\\"});var Q=t.select(\\\"g.geometry-group\\\").selectAll(\\\"g\\\").size()>0,tt=t.select(\\\"g.geometry-group\\\").selectAll(\\\"g.geometry\\\").data(p);if(tt.enter().append(\\\"g\\\").attr({class:function(t,e){return\\\"geometry geometry\\\"+e}}),tt.exit().remove(),p[0]||Q){var et=[];p.forEach(function(t,e){var n={};n.radialScale=r,n.angularScale=s,n.container=tt.filter(function(t,r){return r==e}),n.geometry=t.geometry,n.orientation=h.orientation,n.direction=h.direction,n.index=e,et.push({data:t,geometryConfig:n})});var rt=n.nest().key(function(t,e){return\\\"undefined\\\"!=typeof t.data.groupId||\\\"unstacked\\\"}).entries(et),nt=[];rt.forEach(function(t,e){\\\"unstacked\\\"===t.key?nt=nt.concat(t.values.map(function(t,e){return[t]})):nt.push(t.values)}),nt.forEach(function(t,e){var r;r=Array.isArray(t)?t[0].geometryConfig.geometry:t.geometryConfig.geometry;var n=t.map(function(t,e){return i(o[r].defaultConfig(),t)});o[r]().config(n)()})}var it,at,ot=t.select(\\\".guides-group\\\"),st=t.select(\\\".tooltips-group\\\"),lt=o.tooltipPanel().config({container:st,fontSize:8})(),ct=o.tooltipPanel().config({container:st,fontSize:8})(),ut=o.tooltipPanel().config({container:st,hasTick:!0})();if(!T){var ft=ot.select(\\\"line\\\").attr({x1:0,y1:0,y2:0}).style({stroke:\\\"grey\\\",\\\"pointer-events\\\":\\\"none\\\"});R.on(\\\"mousemove.angular-guide\\\",function(t,e){var r=o.util.getMousePos(Y).angle;ft.attr({x2:-x,transform:\\\"rotate(\\\"+r+\\\")\\\"}).style({opacity:.5});var n=(r+180+360-h.orientation)%360;it=s.invert(n);var i=o.util.convertToCartesian(x+12,r+180);lt.text(o.util.round(it)).move([i[0]+_[0],i[1]+_[1]])}).on(\\\"mouseout.angular-guide\\\",function(t,e){ot.select(\\\"line\\\").style({opacity:0})})}var ht=ot.select(\\\"circle\\\").style({stroke:\\\"grey\\\",fill:\\\"none\\\"});R.on(\\\"mousemove.radial-guide\\\",function(t,e){var n=o.util.getMousePos(Y).radius;ht.attr({r:n}).style({opacity:.5}),at=r.invert(o.util.getMousePos(Y).radius);var i=o.util.convertToCartesian(n,h.radialAxis.orientation);ct.text(o.util.round(at)).move([i[0]+_[0],i[1]+_[1]])}).on(\\\"mouseout.radial-guide\\\",function(t,e){ht.style({opacity:0}),ut.hide(),lt.hide(),ct.hide()}),t.selectAll(\\\".geometry-group .mark\\\").on(\\\"mouseover.tooltip\\\",function(e,r){var i=n.select(this),a=this.style.fill,s=\\\"black\\\",l=this.style.opacity||1;if(i.attr({\\\"data-opacity\\\":l}),a&&\\\"none\\\"!==a){i.attr({\\\"data-fill\\\":a}),s=n.hsl(a).darker().toString(),i.style({fill:s,opacity:1});var c={t:o.util.round(e[0]),r:o.util.round(e[1])};T&&(c.t=w[e[0]]);var u=\\\"t: \\\"+c.t+\\\", r: \\\"+c.r,f=this.getBoundingClientRect(),h=t.node().getBoundingClientRect(),p=[f.left+f.width/2-V[0]-h.left,f.top+f.height/2-V[1]-h.top];ut.config({color:s}).text(u),ut.move(p)}else a=this.style.stroke||\\\"black\\\",i.attr({\\\"data-stroke\\\":a}),s=n.hsl(a).darker().toString(),i.style({stroke:s,opacity:1})}).on(\\\"mousemove.tooltip\\\",function(t,e){if(0!=n.event.which)return!1;n.select(this).attr(\\\"data-fill\\\")&&ut.show()}).on(\\\"mouseout.tooltip\\\",function(t,e){ut.hide();var r=n.select(this),i=r.attr(\\\"data-fill\\\");i?r.style({fill:i,opacity:r.attr(\\\"data-opacity\\\")}):r.style({stroke:r.attr(\\\"data-stroke\\\"),opacity:r.attr(\\\"data-opacity\\\")})})})}(c),this},h.config=function(t){if(!arguments.length)return l;var e=o.util.cloneJson(t);return e.data.forEach(function(t,e){l.data[e]||(l.data[e]={}),i(l.data[e],o.Axis.defaultConfig().data[0]),i(l.data[e],t)}),i(l.layout,o.Axis.defaultConfig().layout),i(l.layout,e.layout),this},h.getLiveConfig=function(){return u},h.getinputConfig=function(){return c},h.radialScale=function(t){return r},h.angularScale=function(t){return s},h.svg=function(){return t},n.rebind(h,f,\\\"on\\\"),h},o.Axis.defaultConfig=function(t,e){return{data:[{t:[1,2,3,4],r:[10,11,12,13],name:\\\"Line1\\\",geometry:\\\"LinePlot\\\",color:null,strokeDash:\\\"solid\\\",strokeColor:null,strokeSize:\\\"1\\\",visibleInLegend:!0,opacity:1}],layout:{defaultColorRange:n.scale.category10().range(),title:null,height:450,width:500,margin:{top:40,right:40,bottom:40,left:40},font:{size:12,color:\\\"gray\\\",outlineColor:\\\"white\\\",family:\\\"Tahoma, sans-serif\\\"},direction:\\\"clockwise\\\",orientation:0,labelOffset:10,radialAxis:{domain:null,orientation:-45,ticksSuffix:\\\"\\\",visible:!0,gridLinesVisible:!0,tickOrientation:\\\"horizontal\\\",rewriteTicks:null},angularAxis:{domain:[0,360],ticksSuffix:\\\"\\\",visible:!0,gridLinesVisible:!0,labelsVisible:!0,tickOrientation:\\\"horizontal\\\",rewriteTicks:null,ticksCount:null,ticksStep:null},minorTicks:0,tickLength:null,tickColor:\\\"silver\\\",minorTickColor:\\\"#eee\\\",backgroundColor:\\\"none\\\",needsEndSpacing:null,showLegend:!0,legend:{reverseOrder:!1},opacity:1}}},o.util={},o.DATAEXTENT=\\\"dataExtent\\\",o.AREA=\\\"AreaChart\\\",o.LINE=\\\"LinePlot\\\",o.DOT=\\\"DotPlot\\\",o.BAR=\\\"BarChart\\\",o.util._override=function(t,e){for(var r in t)r in e&&(e[r]=t[r])},o.util._extend=function(t,e){for(var r in t)e[r]=t[r]},o.util._rndSnd=function(){return 2*Math.random()-1+(2*Math.random()-1)+(2*Math.random()-1)},o.util.dataFromEquation2=function(t,e){var r=e||6;return n.range(0,360+r,r).map(function(e,r){var n=e*Math.PI/180;return[e,t(n)]})},o.util.dataFromEquation=function(t,e,r){var i=e||6,a=[],o=[];n.range(0,360+i,i).forEach(function(e,r){var n=e*Math.PI/180,i=t(n);a.push(e),o.push(i)});var s={t:a,r:o};return r&&(s.name=r),s},o.util.ensureArray=function(t,e){if(\\\"undefined\\\"==typeof t)return null;var r=[].concat(t);return n.range(e).map(function(t,e){return r[e]||r[0]})},o.util.fillArrays=function(t,e,r){return e.forEach(function(e,n){t[e]=o.util.ensureArray(t[e],r)}),t},o.util.cloneJson=function(t){return JSON.parse(JSON.stringify(t))},o.util.validateKeys=function(t,e){\\\"string\\\"==typeof e&&(e=e.split(\\\".\\\"));var r=e.shift();return t[r]&&(!e.length||objHasKeys(t[r],e))},o.util.sumArrays=function(t,e){return n.zip(t,e).map(function(t,e){return n.sum(t)})},o.util.arrayLast=function(t){return t[t.length-1]},o.util.arrayEqual=function(t,e){for(var r=Math.max(t.length,e.length,1);r-- >=0&&t[r]===e[r];);return-2===r},o.util.flattenArray=function(t){for(var e=[];!o.util.arrayEqual(e,t);)e=t,t=[].concat.apply([],t);return t},o.util.deduplicate=function(t){return t.filter(function(t,e,r){return r.indexOf(t)==e})},o.util.convertToCartesian=function(t,e){var r=e*Math.PI/180;return[t*Math.cos(r),t*Math.sin(r)]},o.util.round=function(t,e){var r=e||2,n=Math.pow(10,r);return Math.round(t*n)/n},o.util.getMousePos=function(t){var e=n.mouse(t.node()),r=e[0],i=e[1],a={};return a.x=r,a.y=i,a.pos=e,a.angle=180*(Math.atan2(i,r)+Math.PI)/Math.PI,a.radius=Math.sqrt(r*r+i*i),a},o.util.duplicatesCount=function(t){for(var e,r={},n={},i=0,a=t.length;i<a;i++)(e=t[i])in r?(r[e]++,n[e]=r[e]):r[e]=1;return n},o.util.duplicates=function(t){return Object.keys(o.util.duplicatesCount(t))},o.util.translator=function(t,e,r,n){if(n){var i=r.slice();r=e,e=i}var a=e.reduce(function(t,e){if(\\\"undefined\\\"!=typeof t)return t[e]},t);\\\"undefined\\\"!=typeof a&&(e.reduce(function(t,r,n){if(\\\"undefined\\\"!=typeof t)return n===e.length-1&&delete t[r],t[r]},t),r.reduce(function(t,e,n){return\\\"undefined\\\"==typeof t[e]&&(t[e]={}),n===r.length-1&&(t[e]=a),t[e]},t))},o.PolyChart=function(){var t=[o.PolyChart.defaultConfig()],e=n.dispatch(\\\"hover\\\"),r={solid:\\\"none\\\",dash:[5,2],dot:[2,5]};function a(){var e=t[0].geometryConfig,i=e.container;\\\"string\\\"==typeof i&&(i=n.select(i)),i.datum(t).each(function(t,i){var a=!!t[0].data.yStack,o=t.map(function(t,e){return a?n.zip(t.data.t[0],t.data.r[0],t.data.yStack[0]):n.zip(t.data.t[0],t.data.r[0])}),s=e.angularScale,l=e.radialScale.domain()[0],c={bar:function(r,i,a){var o=t[a].data,l=e.radialScale(r[1])-e.radialScale(0),c=e.radialScale(r[2]||0),u=o.barWidth;n.select(this).attr({class:\\\"mark bar\\\",d:\\\"M\\\"+[[l+c,-u/2],[l+c,u/2],[c,u/2],[c,-u/2]].join(\\\"L\\\")+\\\"Z\\\",transform:function(t,r){return\\\"rotate(\\\"+(e.orientation+s(t[0]))+\\\")\\\"}})}};c.dot=function(r,i,a){var o=r[2]?[r[0],r[1]+r[2]]:r,s=n.svg.symbol().size(t[a].data.dotSize).type(t[a].data.dotType)(r,i);n.select(this).attr({class:\\\"mark dot\\\",d:s,transform:function(t,r){var n,i,a,s=(n=function(t,r){var n=e.radialScale(t[1]),i=(e.angularScale(t[0])+e.orientation)*Math.PI/180;return{r:n,t:i}}(o),i=n.r*Math.cos(n.t),a=n.r*Math.sin(n.t),{x:i,y:a});return\\\"translate(\\\"+[s.x,s.y]+\\\")\\\"}})};var u=n.svg.line.radial().interpolate(t[0].data.lineInterpolation).radius(function(t){return e.radialScale(t[1])}).angle(function(t){return e.angularScale(t[0])*Math.PI/180});c.line=function(r,i,a){var s=r[2]?o[a].map(function(t,e){return[t[0],t[1]+t[2]]}):o[a];if(n.select(this).each(c.dot).style({opacity:function(e,r){return+t[a].data.dotVisible},fill:d.stroke(r,i,a)}).attr({class:\\\"mark dot\\\"}),!(i>0)){var l=n.select(this.parentNode).selectAll(\\\"path.line\\\").data([0]);l.enter().insert(\\\"path\\\"),l.attr({class:\\\"line\\\",d:u(s),transform:function(t,r){return\\\"rotate(\\\"+(e.orientation+90)+\\\")\\\"},\\\"pointer-events\\\":\\\"none\\\"}).style({fill:function(t,e){return d.fill(r,i,a)},\\\"fill-opacity\\\":0,stroke:function(t,e){return d.stroke(r,i,a)},\\\"stroke-width\\\":function(t,e){return d[\\\"stroke-width\\\"](r,i,a)},\\\"stroke-dasharray\\\":function(t,e){return d[\\\"stroke-dasharray\\\"](r,i,a)},opacity:function(t,e){return d.opacity(r,i,a)},display:function(t,e){return d.display(r,i,a)}})}};var f=e.angularScale.range(),h=Math.abs(f[1]-f[0])/o[0].length*Math.PI/180,p=n.svg.arc().startAngle(function(t){return-h/2}).endAngle(function(t){return h/2}).innerRadius(function(t){return e.radialScale(l+(t[2]||0))}).outerRadius(function(t){return e.radialScale(l+(t[2]||0))+e.radialScale(t[1])});c.arc=function(t,r,i){n.select(this).attr({class:\\\"mark arc\\\",d:p,transform:function(t,r){return\\\"rotate(\\\"+(e.orientation+s(t[0])+90)+\\\")\\\"}})};var d={fill:function(e,r,n){return t[n].data.color},stroke:function(e,r,n){return t[n].data.strokeColor},\\\"stroke-width\\\":function(e,r,n){return t[n].data.strokeSize+\\\"px\\\"},\\\"stroke-dasharray\\\":function(e,n,i){return r[t[i].data.strokeDash]},opacity:function(e,r,n){return t[n].data.opacity},display:function(e,r,n){return\\\"undefined\\\"==typeof t[n].data.visible||t[n].data.visible?\\\"block\\\":\\\"none\\\"}},g=n.select(this).selectAll(\\\"g.layer\\\").data(o);g.enter().append(\\\"g\\\").attr({class:\\\"layer\\\"});var v=g.selectAll(\\\"path.mark\\\").data(function(t,e){return t});v.enter().append(\\\"path\\\").attr({class:\\\"mark\\\"}),v.style(d).each(c[e.geometryType]),v.exit().remove(),g.exit().remove()})}return a.config=function(e){return arguments.length?(e.forEach(function(e,r){t[r]||(t[r]={}),i(t[r],o.PolyChart.defaultConfig()),i(t[r],e)}),this):t},a.getColorScale=function(){},n.rebind(a,e,\\\"on\\\"),a},o.PolyChart.defaultConfig=function(){return{data:{name:\\\"geom1\\\",t:[[1,2,3,4]],r:[[1,2,3,4]],dotType:\\\"circle\\\",dotSize:64,dotVisible:!1,barWidth:20,color:\\\"#ffa500\\\",strokeSize:1,strokeColor:\\\"silver\\\",strokeDash:\\\"solid\\\",opacity:1,index:0,visible:!0,visibleInLegend:!0},geometryConfig:{geometry:\\\"LinePlot\\\",geometryType:\\\"arc\\\",direction:\\\"clockwise\\\",orientation:0,container:\\\"body\\\",radialScale:null,angularScale:null,colorScale:n.scale.category20()}}},o.BarChart=function(){return o.PolyChart()},o.BarChart.defaultConfig=function(){return{geometryConfig:{geometryType:\\\"bar\\\"}}},o.AreaChart=function(){return o.PolyChart()},o.AreaChart.defaultConfig=function(){return{geometryConfig:{geometryType:\\\"arc\\\"}}},o.DotPlot=function(){return o.PolyChart()},o.DotPlot.defaultConfig=function(){return{geometryConfig:{geometryType:\\\"dot\\\",dotType:\\\"circle\\\"}}},o.LinePlot=function(){return o.PolyChart()},o.LinePlot.defaultConfig=function(){return{geometryConfig:{geometryType:\\\"line\\\"}}},o.Legend=function(){var t=o.Legend.defaultConfig(),e=n.dispatch(\\\"hover\\\");function r(){var e=t.legendConfig,a=t.data.map(function(t,r){return[].concat(t).map(function(t,n){var a=i({},e.elements[r]);return a.name=t,a.color=[].concat(e.elements[r].color)[n],a})}),o=n.merge(a);o=o.filter(function(t,r){return e.elements[r]&&(e.elements[r].visibleInLegend||\\\"undefined\\\"==typeof e.elements[r].visibleInLegend)}),e.reverseOrder&&(o=o.reverse());var s=e.container;(\\\"string\\\"==typeof s||s.nodeName)&&(s=n.select(s));var l=o.map(function(t,e){return t.color}),c=e.fontSize,u=null==e.isContinuous?\\\"number\\\"==typeof o[0]:e.isContinuous,f=u?e.height:c*o.length,h=s.classed(\\\"legend-group\\\",!0).selectAll(\\\"svg\\\").data([0]),p=h.enter().append(\\\"svg\\\").attr({width:300,height:f+c,xmlns:\\\"http://www.w3.org/2000/svg\\\",\\\"xmlns:xlink\\\":\\\"http://www.w3.org/1999/xlink\\\",version:\\\"1.1\\\"});p.append(\\\"g\\\").classed(\\\"legend-axis\\\",!0),p.append(\\\"g\\\").classed(\\\"legend-marks\\\",!0);var d=n.range(o.length),g=n.scale[u?\\\"linear\\\":\\\"ordinal\\\"]().domain(d).range(l),v=n.scale[u?\\\"linear\\\":\\\"ordinal\\\"]().domain(d)[u?\\\"range\\\":\\\"rangePoints\\\"]([0,f]);if(u){var m=h.select(\\\".legend-marks\\\").append(\\\"defs\\\").append(\\\"linearGradient\\\").attr({id:\\\"grad1\\\",x1:\\\"0%\\\",y1:\\\"0%\\\",x2:\\\"0%\\\",y2:\\\"100%\\\"}).selectAll(\\\"stop\\\").data(l);m.enter().append(\\\"stop\\\"),m.attr({offset:function(t,e){return e/(l.length-1)*100+\\\"%\\\"}}).style({\\\"stop-color\\\":function(t,e){return t}}),h.append(\\\"rect\\\").classed(\\\"legend-mark\\\",!0).attr({height:e.height,width:e.colorBandWidth,fill:\\\"url(#grad1)\\\"})}else{var y=h.select(\\\".legend-marks\\\").selectAll(\\\"path.legend-mark\\\").data(o);y.enter().append(\\\"path\\\").classed(\\\"legend-mark\\\",!0),y.attr({transform:function(t,e){return\\\"translate(\\\"+[c/2,v(e)+c/2]+\\\")\\\"},d:function(t,e){var r,i,a,o=t.symbol;return a=3*(i=c),\\\"line\\\"===(r=o)?\\\"M\\\"+[[-i/2,-i/12],[i/2,-i/12],[i/2,i/12],[-i/2,i/12]]+\\\"Z\\\":-1!=n.svg.symbolTypes.indexOf(r)?n.svg.symbol().type(r).size(a)():n.svg.symbol().type(\\\"square\\\").size(a)()},fill:function(t,e){return g(e)}}),y.exit().remove()}var x=n.svg.axis().scale(v).orient(\\\"right\\\"),b=h.select(\\\"g.legend-axis\\\").attr({transform:\\\"translate(\\\"+[u?e.colorBandWidth:c,c/2]+\\\")\\\"}).call(x);return b.selectAll(\\\".domain\\\").style({fill:\\\"none\\\",stroke:\\\"none\\\"}),b.selectAll(\\\"line\\\").style({fill:\\\"none\\\",stroke:u?e.textColor:\\\"none\\\"}),b.selectAll(\\\"text\\\").style({fill:e.textColor,\\\"font-size\\\":e.fontSize}).text(function(t,e){return o[e].name}),r}return r.config=function(e){return arguments.length?(i(t,e),this):t},n.rebind(r,e,\\\"on\\\"),r},o.Legend.defaultConfig=function(t,e){return{data:[\\\"a\\\",\\\"b\\\",\\\"c\\\"],legendConfig:{elements:[{symbol:\\\"line\\\",color:\\\"red\\\"},{symbol:\\\"square\\\",color:\\\"yellow\\\"},{symbol:\\\"diamond\\\",color:\\\"limegreen\\\"}],height:150,colorBandWidth:30,fontSize:12,container:\\\"body\\\",isContinuous:null,textColor:\\\"grey\\\",reverseOrder:!1}}},o.tooltipPanel=function(){var t,e,r,a={container:null,hasTick:!1,fontSize:12,color:\\\"white\\\",padding:5},s=\\\"tooltip-\\\"+o.tooltipPanel.uid++,l=10,c=function(){var n=(t=a.container.selectAll(\\\"g.\\\"+s).data([0])).enter().append(\\\"g\\\").classed(s,!0).style({\\\"pointer-events\\\":\\\"none\\\",display:\\\"none\\\"});return r=n.append(\\\"path\\\").style({fill:\\\"white\\\",\\\"fill-opacity\\\":.9}).attr({d:\\\"M0 0\\\"}),e=n.append(\\\"text\\\").attr({dx:a.padding+l,dy:.3*+a.fontSize}),c};return c.text=function(i){var o=n.hsl(a.color).l,s=o>=.5?\\\"#aaa\\\":\\\"white\\\",u=o>=.5?\\\"black\\\":\\\"white\\\",f=i||\\\"\\\";e.style({fill:u,\\\"font-size\\\":a.fontSize+\\\"px\\\"}).text(f);var h=a.padding,p=e.node().getBBox(),d={fill:a.color,stroke:s,\\\"stroke-width\\\":\\\"2px\\\"},g=p.width+2*h+l,v=p.height+2*h;return r.attr({d:\\\"M\\\"+[[l,-v/2],[l,-v/4],[a.hasTick?0:l,0],[l,v/4],[l,v/2],[g,v/2],[g,-v/2]].join(\\\"L\\\")+\\\"Z\\\"}).style(d),t.attr({transform:\\\"translate(\\\"+[l,-v/2+2*h]+\\\")\\\"}),t.style({display:\\\"block\\\"}),c},c.move=function(e){if(t)return t.attr({transform:\\\"translate(\\\"+[e[0],e[1]]+\\\")\\\"}).style({display:\\\"block\\\"}),c},c.hide=function(){if(t)return t.style({display:\\\"none\\\"}),c},c.show=function(){if(t)return t.style({display:\\\"block\\\"}),c},c.config=function(t){return i(a,t),c},c},o.tooltipPanel.uid=1,o.adapter={},o.adapter.plotly=function(){var t={convert:function(t,e){var r={};if(t.data&&(r.data=t.data.map(function(t,r){var n=i({},t);return[[n,[\\\"marker\\\",\\\"color\\\"],[\\\"color\\\"]],[n,[\\\"marker\\\",\\\"opacity\\\"],[\\\"opacity\\\"]],[n,[\\\"marker\\\",\\\"line\\\",\\\"color\\\"],[\\\"strokeColor\\\"]],[n,[\\\"marker\\\",\\\"line\\\",\\\"dash\\\"],[\\\"strokeDash\\\"]],[n,[\\\"marker\\\",\\\"line\\\",\\\"width\\\"],[\\\"strokeSize\\\"]],[n,[\\\"marker\\\",\\\"symbol\\\"],[\\\"dotType\\\"]],[n,[\\\"marker\\\",\\\"size\\\"],[\\\"dotSize\\\"]],[n,[\\\"marker\\\",\\\"barWidth\\\"],[\\\"barWidth\\\"]],[n,[\\\"line\\\",\\\"interpolation\\\"],[\\\"lineInterpolation\\\"]],[n,[\\\"showlegend\\\"],[\\\"visibleInLegend\\\"]]].forEach(function(t,r){o.util.translator.apply(null,t.concat(e))}),e||delete n.marker,e&&delete n.groupId,e?(\\\"LinePlot\\\"===n.geometry?(n.type=\\\"scatter\\\",!0===n.dotVisible?(delete n.dotVisible,n.mode=\\\"lines+markers\\\"):n.mode=\\\"lines\\\"):\\\"DotPlot\\\"===n.geometry?(n.type=\\\"scatter\\\",n.mode=\\\"markers\\\"):\\\"AreaChart\\\"===n.geometry?n.type=\\\"area\\\":\\\"BarChart\\\"===n.geometry&&(n.type=\\\"bar\\\"),delete n.geometry):(\\\"scatter\\\"===n.type?\\\"lines\\\"===n.mode?n.geometry=\\\"LinePlot\\\":\\\"markers\\\"===n.mode?n.geometry=\\\"DotPlot\\\":\\\"lines+markers\\\"===n.mode&&(n.geometry=\\\"LinePlot\\\",n.dotVisible=!0):\\\"area\\\"===n.type?n.geometry=\\\"AreaChart\\\":\\\"bar\\\"===n.type&&(n.geometry=\\\"BarChart\\\"),delete n.mode,delete n.type),n}),!e&&t.layout&&\\\"stack\\\"===t.layout.barmode)){var a=o.util.duplicates(r.data.map(function(t,e){return t.geometry}));r.data.forEach(function(t,e){var n=a.indexOf(t.geometry);-1!=n&&(r.data[e].groupId=n)})}if(t.layout){var s=i({},t.layout);if([[s,[\\\"plot_bgcolor\\\"],[\\\"backgroundColor\\\"]],[s,[\\\"showlegend\\\"],[\\\"showLegend\\\"]],[s,[\\\"radialaxis\\\"],[\\\"radialAxis\\\"]],[s,[\\\"angularaxis\\\"],[\\\"angularAxis\\\"]],[s.angularaxis,[\\\"showline\\\"],[\\\"gridLinesVisible\\\"]],[s.angularaxis,[\\\"showticklabels\\\"],[\\\"labelsVisible\\\"]],[s.angularaxis,[\\\"nticks\\\"],[\\\"ticksCount\\\"]],[s.angularaxis,[\\\"tickorientation\\\"],[\\\"tickOrientation\\\"]],[s.angularaxis,[\\\"ticksuffix\\\"],[\\\"ticksSuffix\\\"]],[s.angularaxis,[\\\"range\\\"],[\\\"domain\\\"]],[s.angularaxis,[\\\"endpadding\\\"],[\\\"endPadding\\\"]],[s.radialaxis,[\\\"showline\\\"],[\\\"gridLinesVisible\\\"]],[s.radialaxis,[\\\"tickorientation\\\"],[\\\"tickOrientation\\\"]],[s.radialaxis,[\\\"ticksuffix\\\"],[\\\"ticksSuffix\\\"]],[s.radialaxis,[\\\"range\\\"],[\\\"domain\\\"]],[s.angularAxis,[\\\"showline\\\"],[\\\"gridLinesVisible\\\"]],[s.angularAxis,[\\\"showticklabels\\\"],[\\\"labelsVisible\\\"]],[s.angularAxis,[\\\"nticks\\\"],[\\\"ticksCount\\\"]],[s.angularAxis,[\\\"tickorientation\\\"],[\\\"tickOrientation\\\"]],[s.angularAxis,[\\\"ticksuffix\\\"],[\\\"ticksSuffix\\\"]],[s.angularAxis,[\\\"range\\\"],[\\\"domain\\\"]],[s.angularAxis,[\\\"endpadding\\\"],[\\\"endPadding\\\"]],[s.radialAxis,[\\\"showline\\\"],[\\\"gridLinesVisible\\\"]],[s.radialAxis,[\\\"tickorientation\\\"],[\\\"tickOrientation\\\"]],[s.radialAxis,[\\\"ticksuffix\\\"],[\\\"ticksSuffix\\\"]],[s.radialAxis,[\\\"range\\\"],[\\\"domain\\\"]],[s.font,[\\\"outlinecolor\\\"],[\\\"outlineColor\\\"]],[s.legend,[\\\"traceorder\\\"],[\\\"reverseOrder\\\"]],[s,[\\\"labeloffset\\\"],[\\\"labelOffset\\\"]],[s,[\\\"defaultcolorrange\\\"],[\\\"defaultColorRange\\\"]]].forEach(function(t,r){o.util.translator.apply(null,t.concat(e))}),e?(\\\"undefined\\\"!=typeof s.tickLength&&(s.angularaxis.ticklen=s.tickLength,delete s.tickLength),s.tickColor&&(s.angularaxis.tickcolor=s.tickColor,delete s.tickColor)):(s.angularAxis&&\\\"undefined\\\"!=typeof s.angularAxis.ticklen&&(s.tickLength=s.angularAxis.ticklen),s.angularAxis&&\\\"undefined\\\"!=typeof s.angularAxis.tickcolor&&(s.tickColor=s.angularAxis.tickcolor)),s.legend&&\\\"boolean\\\"!=typeof s.legend.reverseOrder&&(s.legend.reverseOrder=\\\"normal\\\"!=s.legend.reverseOrder),s.legend&&\\\"boolean\\\"==typeof s.legend.traceorder&&(s.legend.traceorder=s.legend.traceorder?\\\"reversed\\\":\\\"normal\\\",delete s.legend.reverseOrder),s.margin&&\\\"undefined\\\"!=typeof s.margin.t){var l=[\\\"t\\\",\\\"r\\\",\\\"b\\\",\\\"l\\\",\\\"pad\\\"],c=[\\\"top\\\",\\\"right\\\",\\\"bottom\\\",\\\"left\\\",\\\"pad\\\"],u={};n.entries(s.margin).forEach(function(t,e){u[c[l.indexOf(t.key)]]=t.value}),s.margin=u}e&&(delete s.needsEndSpacing,delete s.minorTickColor,delete s.minorTicks,delete s.angularaxis.ticksCount,delete s.angularaxis.ticksCount,delete s.angularaxis.ticksStep,delete s.angularaxis.rewriteTicks,delete s.angularaxis.nticks,delete s.radialaxis.ticksCount,delete s.radialaxis.ticksCount,delete s.radialaxis.ticksStep,delete s.radialaxis.rewriteTicks,delete s.radialaxis.nticks),r.layout=s}return r}};return t}},{\\\"../../../constants/alignment\\\":675,\\\"../../../lib\\\":703,d3:157}],822:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../../lib\\\"),a=t(\\\"../../../components/color\\\"),o=t(\\\"./micropolar\\\"),s=t(\\\"./undo_manager\\\"),l=i.extendDeepAll,c=e.exports={};c.framework=function(t){var e,r,i,a,u,f=new s;function h(r,s){return s&&(u=s),n.select(n.select(u).node().parentNode).selectAll(\\\".svg-container>*:not(.chart-root)\\\").remove(),e=e?l(e,r):r,i||(i=o.Axis()),a=o.adapter.plotly().convert(e),i.config(a).render(u),t.data=e.data,t.layout=e.layout,c.fillLayout(t),e}return h.isPolar=!0,h.svg=function(){return i.svg()},h.getConfig=function(){return e},h.getLiveConfig=function(){return o.adapter.plotly().convert(i.getLiveConfig(),!0)},h.getLiveScales=function(){return{t:i.angularScale(),r:i.radialScale()}},h.setUndoPoint=function(){var t,n,i=this,a=o.util.cloneJson(e);t=a,n=r,f.add({undo:function(){n&&i(n)},redo:function(){i(t)}}),r=o.util.cloneJson(a)},h.undo=function(){f.undo()},h.redo=function(){f.redo()},h},c.fillLayout=function(t){var e=n.select(t).selectAll(\\\".plot-container\\\"),r=e.selectAll(\\\".svg-container\\\"),i=t.framework&&t.framework.svg&&t.framework.svg(),o={width:800,height:600,paper_bgcolor:a.background,_container:e,_paperdiv:r,_paper:i};t._fullLayout=l(o,t.layout)}},{\\\"../../../components/color\\\":580,\\\"../../../lib\\\":703,\\\"./micropolar\\\":821,\\\"./undo_manager\\\":823,d3:157}],823:[function(t,e,r){\\\"use strict\\\";e.exports=function(){var t,e=[],r=-1,n=!1;function i(t,e){return t?(n=!0,t[e](),n=!1,this):this}return{add:function(t){return n?this:(e.splice(r+1,e.length-r),e.push(t),r=e.length-1,this)},setCallback:function(e){t=e},undo:function(){var n=e[r];return n?(i(n,\\\"undo\\\"),r-=1,t&&t(n.undo),this):this},redo:function(){var n=e[r+1];return n?(i(n,\\\"redo\\\"),r+=1,t&&t(n.redo),this):this},clear:function(){e=[],r=-1},hasUndo:function(){return-1!==r},hasRedo:function(){return r<e.length-1},getCommands:function(){return e},getPreviousCommand:function(){return e[r-1]},getIndex:function(){return r}}}},{}],824:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"tinycolor2\\\"),a=t(\\\"../../registry\\\"),o=t(\\\"../../lib\\\"),s=t(\\\"../../components/color\\\"),l=t(\\\"../../components/drawing\\\"),c=t(\\\"../plots\\\"),u=t(\\\"../../plots/cartesian/axes\\\"),f=t(\\\"../cartesian/set_convert\\\"),h=t(\\\"./set_convert\\\"),p=t(\\\"../cartesian/autorange\\\").doAutoRange,d=t(\\\"../cartesian/dragbox\\\"),g=t(\\\"../../components/dragelement\\\"),v=t(\\\"../../components/fx\\\"),m=t(\\\"../../components/titles\\\"),y=t(\\\"../cartesian/select\\\").prepSelect,x=t(\\\"../cartesian/select\\\").selectOnClick,b=t(\\\"../cartesian/select\\\").clearSelect,_=t(\\\"../../lib/setcursor\\\"),w=t(\\\"../../lib/clear_gl_canvases\\\"),k=t(\\\"../../plot_api/subroutines\\\").redrawReglTraces,T=t(\\\"../../constants/alignment\\\").MID_SHIFT,A=t(\\\"./constants\\\"),M=t(\\\"./helpers\\\"),S=o._,E=o.mod,C=o.deg2rad,L=o.rad2deg;function z(t,e){this.id=e,this.gd=t,this._hasClipOnAxisFalse=null,this.vangles=null,this.radialAxisAngle=null,this.traceHash={},this.layers={},this.clipPaths={},this.clipIds={},this.viewInitial={};var r=t._fullLayout,n=\\\"clip\\\"+r._uid+e;this.clipIds.forTraces=n+\\\"-for-traces\\\",this.clipPaths.forTraces=r._clips.append(\\\"clipPath\\\").attr(\\\"id\\\",this.clipIds.forTraces),this.clipPaths.forTraces.append(\\\"path\\\"),this.framework=r._polarlayer.append(\\\"g\\\").attr(\\\"class\\\",e),this.radialTickLayout=null,this.angularTickLayout=null}var O=z.prototype;function I(t){var e=t.ticks+String(t.ticklen)+String(t.showticklabels);return\\\"side\\\"in t&&(e+=t.side),e}function D(t,e){return e[o.findIndexOfMin(e,function(e){return o.angleDist(t,e)})]}function P(t,e,r){return e?(t.attr(\\\"display\\\",null),t.attr(r)):t&&t.attr(\\\"display\\\",\\\"none\\\"),t}function R(t,e){return\\\"translate(\\\"+t+\\\",\\\"+e+\\\")\\\"}function F(t){return\\\"rotate(\\\"+t+\\\")\\\"}e.exports=function(t,e){return new z(t,e)},O.plot=function(t,e){var r=e[this.id];this._hasClipOnAxisFalse=!1;for(var n=0;n<t.length;n++){if(!1===t[n][0].trace.cliponaxis){this._hasClipOnAxisFalse=!0;break}}this.updateLayers(e,r),this.updateLayout(e,r),c.generalUpdatePerTraceModule(this.gd,this,t,r),this.updateFx(e,r)},O.updateLayers=function(t,e){var r=this.layers,i=e.radialaxis,a=e.angularaxis,o=A.layerNames,s=o.indexOf(\\\"frontplot\\\"),l=o.slice(0,s),c=\\\"below traces\\\"===a.layer,u=\\\"below traces\\\"===i.layer;c&&l.push(\\\"angular-line\\\"),u&&l.push(\\\"radial-line\\\"),c&&l.push(\\\"angular-axis\\\"),u&&l.push(\\\"radial-axis\\\"),l.push(\\\"frontplot\\\"),c||l.push(\\\"angular-line\\\"),u||l.push(\\\"radial-line\\\"),c||l.push(\\\"angular-axis\\\"),u||l.push(\\\"radial-axis\\\");var f=this.framework.selectAll(\\\".polarsublayer\\\").data(l,String);f.enter().append(\\\"g\\\").attr(\\\"class\\\",function(t){return\\\"polarsublayer \\\"+t}).each(function(t){var e=r[t]=n.select(this);switch(t){case\\\"frontplot\\\":e.append(\\\"g\\\").classed(\\\"barlayer\\\",!0),e.append(\\\"g\\\").classed(\\\"scatterlayer\\\",!0);break;case\\\"backplot\\\":e.append(\\\"g\\\").classed(\\\"maplayer\\\",!0);break;case\\\"plotbg\\\":r.bg=e.append(\\\"path\\\");break;case\\\"radial-grid\\\":case\\\"angular-grid\\\":e.style(\\\"fill\\\",\\\"none\\\");break;case\\\"radial-line\\\":e.append(\\\"line\\\").style(\\\"fill\\\",\\\"none\\\");break;case\\\"angular-line\\\":e.append(\\\"path\\\").style(\\\"fill\\\",\\\"none\\\")}}),f.order()},O.updateLayout=function(t,e){var r=this.layers,n=t._size,i=e.radialaxis,a=e.angularaxis,o=e.domain.x,c=e.domain.y;this.xOffset=n.l+n.w*o[0],this.yOffset=n.t+n.h*(1-c[1]);var u=this.xLength=n.w*(o[1]-o[0]),f=this.yLength=n.h*(c[1]-c[0]),h=e.sector;this.sectorInRad=h.map(C);var p,d,g,v,m,y=this.sectorBBox=function(t){var e,r,n,i,a=t[0],o=t[1]-a,s=E(a,360),l=s+o,c=Math.cos(C(s)),u=Math.sin(C(s)),f=Math.cos(C(l)),h=Math.sin(C(l));i=s<=90&&l>=90||s>90&&l>=450?1:u<=0&&h<=0?0:Math.max(u,h);e=s<=180&&l>=180||s>180&&l>=540?-1:c>=0&&f>=0?0:Math.min(c,f);r=s<=270&&l>=270||s>270&&l>=630?-1:u>=0&&h>=0?0:Math.min(u,h);n=l>=360?1:c<=0&&f<=0?0:Math.max(c,f);return[e,r,n,i]}(h),x=y[2]-y[0],b=y[3]-y[1],_=f/u,w=Math.abs(b/x);_>w?(p=u,m=(f-(d=u*w))/n.h/2,g=[o[0],o[1]],v=[c[0]+m,c[1]-m]):(d=f,m=(u-(p=f/w))/n.w/2,g=[o[0]+m,o[1]-m],v=[c[0],c[1]]),this.xLength2=p,this.yLength2=d,this.xDomain2=g,this.yDomain2=v;var k=this.xOffset2=n.l+n.w*g[0],T=this.yOffset2=n.t+n.h*(1-v[1]),A=this.radius=p/x,M=this.innerRadius=e.hole*A,S=this.cx=k-A*y[0],L=this.cy=T+A*y[3],z=this.cxx=S-k,O=this.cyy=L-T;this.radialAxis=this.mockAxis(t,e,i,{_id:\\\"x\\\",side:{counterclockwise:\\\"top\\\",clockwise:\\\"bottom\\\"}[i.side],domain:[M/n.w,A/n.w]}),this.angularAxis=this.mockAxis(t,e,a,{side:\\\"right\\\",domain:[0,Math.PI],autorange:!1}),this.doAutoRange(t,e),this.updateAngularAxis(t,e),this.updateRadialAxis(t,e),this.updateRadialAxisTitle(t,e),this.xaxis=this.mockCartesianAxis(t,e,{_id:\\\"x\\\",domain:g}),this.yaxis=this.mockCartesianAxis(t,e,{_id:\\\"y\\\",domain:v});var I=this.pathSubplot();this.clipPaths.forTraces.select(\\\"path\\\").attr(\\\"d\\\",I).attr(\\\"transform\\\",R(z,O)),r.frontplot.attr(\\\"transform\\\",R(k,T)).call(l.setClipUrl,this._hasClipOnAxisFalse?null:this.clipIds.forTraces,this.gd),r.bg.attr(\\\"d\\\",I).attr(\\\"transform\\\",R(S,L)).call(s.fill,e.bgcolor)},O.mockAxis=function(t,e,r,n){var i=o.extendFlat({anchor:\\\"free\\\",position:0},r,n);return h(i,e,t),i},O.mockCartesianAxis=function(t,e,r){var n=this,i=r._id,a=o.extendFlat({type:\\\"linear\\\"},r);f(a,t);var s={x:[0,2],y:[1,3]};return a.setRange=function(){var t=n.sectorBBox,r=s[i],o=n.radialAxis._rl,l=(o[1]-o[0])/(1-e.hole);a.range=[t[r[0]]*l,t[r[1]]*l]},a.isPtWithinRange=\\\"x\\\"===i?function(t){return n.isPtInside(t)}:function(){return!0},a.setRange(),a.setScale(),a},O.doAutoRange=function(t,e){var r=this.gd,n=this.radialAxis,i=e.radialaxis;n.setScale(),p(r,n);var a=n.range;i.range=a.slice(),i._input.range=a.slice(),n._rl=[n.r2l(a[0],null,\\\"gregorian\\\"),n.r2l(a[1],null,\\\"gregorian\\\")]},O.updateRadialAxis=function(t,e){var r=this,n=r.gd,i=r.layers,a=r.radius,l=r.innerRadius,c=r.cx,f=r.cy,h=e.radialaxis,p=E(e.sector[0],360),d=r.radialAxis,g=l<a;r.fillViewInitialKey(\\\"radialaxis.angle\\\",h.angle),r.fillViewInitialKey(\\\"radialaxis.range\\\",d.range.slice()),d.setGeometry(),\\\"auto\\\"===d.tickangle&&p>90&&p<=270&&(d.tickangle=180);var v=function(t){return\\\"translate(\\\"+(d.l2p(t.x)+l)+\\\",0)\\\"},m=I(h);if(r.radialTickLayout!==m&&(i[\\\"radial-axis\\\"].selectAll(\\\".xtick\\\").remove(),r.radialTickLayout=m),g){d.setScale();var y=u.calcTicks(d),x=u.clipEnds(d,y),b=u.getTickSigns(d)[2];u.drawTicks(n,d,{vals:y,layer:i[\\\"radial-axis\\\"],path:u.makeTickPath(d,0,b),transFn:v,crisp:!1}),u.drawGrid(n,d,{vals:x,layer:i[\\\"radial-grid\\\"],path:function(t){return r.pathArc(d.r2p(t.x)+l)},transFn:o.noop,crisp:!1}),u.drawLabels(n,d,{vals:y,layer:i[\\\"radial-axis\\\"],transFn:v,labelFns:u.makeLabelFns(d,0)})}var _=r.radialAxisAngle=r.vangles?L(D(C(h.angle),r.vangles)):h.angle,w=R(c,f),k=w+F(-_);P(i[\\\"radial-axis\\\"],g&&(h.showticklabels||h.ticks),{transform:k}),P(i[\\\"radial-grid\\\"],g&&h.showgrid,{transform:w}),P(i[\\\"radial-line\\\"].select(\\\"line\\\"),g&&h.showline,{x1:l,y1:0,x2:a,y2:0,transform:k}).attr(\\\"stroke-width\\\",h.linewidth).call(s.stroke,h.linecolor)},O.updateRadialAxisTitle=function(t,e,r){var n=this.gd,i=this.radius,a=this.cx,o=this.cy,s=e.radialaxis,c=this.id+\\\"title\\\",u=void 0!==r?r:this.radialAxisAngle,f=C(u),h=Math.cos(f),p=Math.sin(f),d=0;if(s.title){var g=l.bBox(this.layers[\\\"radial-axis\\\"].node()).height,v=s.title.font.size;d=\\\"counterclockwise\\\"===s.side?-g-.4*v:g+.8*v}this.layers[\\\"radial-axis-title\\\"]=m.draw(n,c,{propContainer:s,propName:this.id+\\\".radialaxis.title\\\",placeholder:S(n,\\\"Click to enter radial axis title\\\"),attributes:{x:a+i/2*h+d*p,y:o-i/2*p+d*h,\\\"text-anchor\\\":\\\"middle\\\"},transform:{rotate:-u}})},O.updateAngularAxis=function(t,e){var r=this,n=r.gd,i=r.layers,a=r.radius,l=r.innerRadius,c=r.cx,f=r.cy,h=e.angularaxis,p=r.angularAxis;r.fillViewInitialKey(\\\"angularaxis.rotation\\\",h.rotation),p.setGeometry(),p.setScale();var d=function(t){return p.t2g(t.x)};\\\"linear\\\"===p.type&&\\\"radians\\\"===p.thetaunit&&(p.tick0=L(p.tick0),p.dtick=L(p.dtick));var g=function(t){return R(c+a*Math.cos(t),f-a*Math.sin(t))},v=u.makeLabelFns(p,0).labelStandoff,m={xFn:function(t){var e=d(t);return Math.cos(e)*v},yFn:function(t){var e=d(t),r=Math.sin(e)>0?.2:1;return-Math.sin(e)*(v+t.fontSize*r)+Math.abs(Math.cos(e))*(t.fontSize*T)},anchorFn:function(t){var e=d(t),r=Math.cos(e);return Math.abs(r)<.1?\\\"middle\\\":r>0?\\\"start\\\":\\\"end\\\"},heightFn:function(t,e,r){var n=d(t);return-.5*(1+Math.sin(n))*r}},y=I(h);r.angularTickLayout!==y&&(i[\\\"angular-axis\\\"].selectAll(\\\".\\\"+p._id+\\\"tick\\\").remove(),r.angularTickLayout=y);var x,b=u.calcTicks(p);if(\\\"linear\\\"===e.gridshape?(x=b.map(d),o.angleDelta(x[0],x[1])<0&&(x=x.slice().reverse())):x=null,r.vangles=x,\\\"category\\\"===p.type&&(b=b.filter(function(t){return o.isAngleInsideSector(d(t),r.sectorInRad)})),p.visible){var _=\\\"inside\\\"===p.ticks?-1:1,w=(p.linewidth||1)/2;u.drawTicks(n,p,{vals:b,layer:i[\\\"angular-axis\\\"],path:\\\"M\\\"+_*w+\\\",0h\\\"+_*p.ticklen,transFn:function(t){var e=d(t);return g(e)+F(-L(e))},crisp:!1}),u.drawGrid(n,p,{vals:b,layer:i[\\\"angular-grid\\\"],path:function(t){var e=d(t),r=Math.cos(e),n=Math.sin(e);return\\\"M\\\"+[c+l*r,f-l*n]+\\\"L\\\"+[c+a*r,f-a*n]},transFn:o.noop,crisp:!1}),u.drawLabels(n,p,{vals:b,layer:i[\\\"angular-axis\\\"],repositionOnUpdate:!0,transFn:function(t){return g(d(t))},labelFns:m})}P(i[\\\"angular-line\\\"].select(\\\"path\\\"),h.showline,{d:r.pathSubplot(),transform:R(c,f)}).attr(\\\"stroke-width\\\",h.linewidth).call(s.stroke,h.linecolor)},O.updateFx=function(t,e){this.gd._context.staticPlot||(this.updateAngularDrag(t),this.updateRadialDrag(t,e,0),this.updateRadialDrag(t,e,1),this.updateMainDrag(t))},O.updateMainDrag=function(t){var e=this,r=e.gd,o=e.layers,s=t._zoomlayer,l=A.MINZOOM,c=A.OFFEDGE,u=e.radius,f=e.innerRadius,h=e.cx,p=e.cy,m=e.cxx,_=e.cyy,w=e.sectorInRad,k=e.vangles,T=e.radialAxis,S=M.clampTiny,E=M.findXYatLength,C=M.findEnclosingVertexAngles,L=A.cornerHalfWidth,z=A.cornerLen/2,O=d.makeDragger(o,\\\"path\\\",\\\"maindrag\\\",\\\"crosshair\\\");n.select(O).attr(\\\"d\\\",e.pathSubplot()).attr(\\\"transform\\\",R(h,p));var I,D,P,F,B,N,j,V,U,H={element:O,gd:r,subplot:e.id,plotinfo:{id:e.id,xaxis:e.xaxis,yaxis:e.yaxis},xaxes:[e.xaxis],yaxes:[e.yaxis]};function q(t,e){return Math.sqrt(t*t+e*e)}function G(t,e){return q(t-m,e-_)}function Y(t,e){return Math.atan2(_-e,t-m)}function W(t,e){return[t*Math.cos(e),t*Math.sin(-e)]}function X(t,r){if(0===t)return e.pathSector(2*L);var n=z/t,i=r-n,a=r+n,o=Math.max(0,Math.min(t,u)),s=o-L,l=o+L;return\\\"M\\\"+W(s,i)+\\\"A\\\"+[s,s]+\\\" 0,0,0 \\\"+W(s,a)+\\\"L\\\"+W(l,a)+\\\"A\\\"+[l,l]+\\\" 0,0,1 \\\"+W(l,i)+\\\"Z\\\"}function Z(t,r,n){if(0===t)return e.pathSector(2*L);var i,a,o=W(t,r),s=W(t,n),l=S((o[0]+s[0])/2),c=S((o[1]+s[1])/2);if(l&&c){var u=c/l,f=-1/u,h=E(L,u,l,c);i=E(z,f,h[0][0],h[0][1]),a=E(z,f,h[1][0],h[1][1])}else{var p,d;c?(p=z,d=L):(p=L,d=z),i=[[l-p,c-d],[l+p,c-d]],a=[[l-p,c+d],[l+p,c+d]]}return\\\"M\\\"+i.join(\\\"L\\\")+\\\"L\\\"+a.reverse().join(\\\"L\\\")+\\\"Z\\\"}function $(t,e){return e=Math.max(Math.min(e,u),f),t<c?t=0:u-t<c?t=u:e<c?e=0:u-e<c&&(e=u),Math.abs(e-t)>l?(t<e?(P=t,F=e):(P=e,F=t),!0):(P=null,F=null,!1)}function J(t,e){t=t||B,e=e||\\\"M0,0Z\\\",V.attr(\\\"d\\\",t),U.attr(\\\"d\\\",e),d.transitionZoombox(V,U,N,j),N=!0;var n={};rt(n),r.emit(\\\"plotly_relayouting\\\",n)}function K(t,r){var n,i,a=I+t,o=D+r,s=G(I,D),l=Math.min(G(a,o),u),c=Y(I,D);$(s,l)&&(n=B+e.pathSector(F),P&&(n+=e.pathSector(P)),i=X(P,c)+X(F,c)),J(n,i)}function Q(t,e,r,n){var i=M.findIntersectionXY(r,n,r,[t-m,_-e]);return q(i[0],i[1])}function tt(t,r){var n,i,a=I+t,o=D+r,s=Y(I,D),l=Y(a,o),c=C(s,k),f=C(l,k);$(Q(I,D,c[0],c[1]),Math.min(Q(a,o,f[0],f[1]),u))&&(n=B+e.pathSector(F),P&&(n+=e.pathSector(P)),i=[Z(P,c[0],c[1]),Z(F,c[0],c[1])].join(\\\" \\\")),J(n,i)}function et(){if(d.removeZoombox(r),null!==P&&null!==F){var t={};rt(t),d.showDoubleClickNotifier(r),a.call(\\\"_guiRelayout\\\",r,t)}}function rt(t){var r=T._rl,n=(r[1]-r[0])/(1-f/u)/u,i=[r[0]+(P-f)*n,r[0]+(F-f)*n];t[e.id+\\\".radialaxis.range\\\"]=i}function nt(t,n){var i=r._fullLayout.clickmode;if(d.removeZoombox(r),2===t){var o={};for(var s in e.viewInitial)o[e.id+\\\".\\\"+s]=e.viewInitial[s];r.emit(\\\"plotly_doubleclick\\\",null),a.call(\\\"_guiRelayout\\\",r,o)}i.indexOf(\\\"select\\\")>-1&&1===t&&x(n,r,[e.xaxis],[e.yaxis],e.id,H),i.indexOf(\\\"event\\\")>-1&&v.click(r,n,e.id)}H.prepFn=function(t,n,a){var o=r._fullLayout.dragmode,l=O.getBoundingClientRect();if(I=n-l.left,D=a-l.top,k){var c=M.findPolygonOffset(u,w[0],w[1],k);I+=m+c[0],D+=_+c[1]}switch(o){case\\\"zoom\\\":H.moveFn=k?tt:K,H.clickFn=nt,H.doneFn=et,function(){P=null,F=null,B=e.pathSubplot(),N=!1;var t=r._fullLayout[e.id];j=i(t.bgcolor).getLuminance(),(V=d.makeZoombox(s,j,h,p,B)).attr(\\\"fill-rule\\\",\\\"evenodd\\\"),U=d.makeCorners(s,h,p),b(r)}();break;case\\\"select\\\":case\\\"lasso\\\":y(t,n,a,H,o)}},O.onmousemove=function(t){v.hover(r,t,e.id),r._fullLayout._lasthover=O,r._fullLayout._hoversubplot=e.id},O.onmouseout=function(t){r._dragging||g.unhover(r,t)},g.init(H)},O.updateRadialDrag=function(t,e,r){var i=this,s=i.gd,l=i.layers,c=i.radius,u=i.innerRadius,f=i.cx,h=i.cy,p=i.radialAxis,v=A.radialDragBoxSize,m=v/2;if(p.visible){var y,x,_,T=C(i.radialAxisAngle),M=p._rl,S=M[0],E=M[1],z=M[r],O=.75*(M[1]-M[0])/(1-e.hole)/c;r?(y=f+(c+m)*Math.cos(T),x=h-(c+m)*Math.sin(T),_=\\\"radialdrag\\\"):(y=f+(u-m)*Math.cos(T),x=h-(u-m)*Math.sin(T),_=\\\"radialdrag-inner\\\");var I,B,N,j=d.makeRectDragger(l,_,\\\"crosshair\\\",-m,-m,v,v),V={element:j,gd:s};P(n.select(j),p.visible&&u<c,{transform:R(y,x)}),V.prepFn=function(){I=null,B=null,N=null,V.moveFn=U,V.doneFn=H,b(s)},V.clampFn=function(t,e){return Math.sqrt(t*t+e*e)<A.MINDRAG&&(t=0,e=0),[t,e]},g.init(V)}function U(t,e){if(I)I(t,e);else{var n=[t,-e],a=[Math.cos(T),Math.sin(T)],l=Math.abs(o.dot(n,a)/Math.sqrt(o.dot(n,n)));isNaN(l)||(I=l<.5?q:G)}var c={};!function(t){null!==B?t[i.id+\\\".radialaxis.angle\\\"]=B:null!==N&&(t[i.id+\\\".radialaxis.range[\\\"+r+\\\"]\\\"]=N)}(c),s.emit(\\\"plotly_relayouting\\\",c)}function H(){null!==B?a.call(\\\"_guiRelayout\\\",s,i.id+\\\".radialaxis.angle\\\",B):null!==N&&a.call(\\\"_guiRelayout\\\",s,i.id+\\\".radialaxis.range[\\\"+r+\\\"]\\\",N)}function q(t,e){if(0!==r){var n=y+t,a=x+e;B=Math.atan2(h-a,n-f),i.vangles&&(B=D(B,i.vangles)),B=L(B);var o=R(f,h)+F(-B);l[\\\"radial-axis\\\"].attr(\\\"transform\\\",o),l[\\\"radial-line\\\"].select(\\\"line\\\").attr(\\\"transform\\\",o);var s=i.gd._fullLayout,c=s[i.id];i.updateRadialAxisTitle(s,c,B)}}function G(t,e){var n=o.dot([t,-e],[Math.cos(T),Math.sin(T)]);if(N=z-O*n,O>0==(r?N>S:N<E)){var l=s._fullLayout,c=l[i.id];p.range[r]=N,p._rl[r]=N,i.updateRadialAxis(l,c),i.xaxis.setRange(),i.xaxis.setScale(),i.yaxis.setRange(),i.yaxis.setScale();var u=!1;for(var f in i.traceHash){var h=i.traceHash[f],d=o.filterVisible(h);h[0][0].trace._module.plot(s,i,d,c),a.traceIs(f,\\\"gl\\\")&&d.length&&(u=!0)}u&&(w(s),k(s))}else N=null}},O.updateAngularDrag=function(t){var e=this,r=e.gd,i=e.layers,s=e.radius,c=e.angularAxis,u=e.cx,f=e.cy,h=e.cxx,p=e.cyy,v=A.angularDragBoxSize,m=d.makeDragger(i,\\\"path\\\",\\\"angulardrag\\\",\\\"move\\\"),y={element:m,gd:r};function x(t,e){return Math.atan2(p+v-e,t-h-v)}n.select(m).attr(\\\"d\\\",e.pathAnnulus(s,s+v)).attr(\\\"transform\\\",R(u,f)).call(_,\\\"move\\\");var T,M,S,E,C,z,O=i.frontplot.select(\\\".scatterlayer\\\").selectAll(\\\".trace\\\"),I=O.selectAll(\\\".point\\\"),D=O.selectAll(\\\".textpoint\\\");function P(t,s){var d=e.gd._fullLayout,g=d[e.id],v=x(T+t,M+s),m=L(v-z);if(E=S+m,i.frontplot.attr(\\\"transform\\\",R(e.xOffset2,e.yOffset2)+F([-m,h,p])),e.vangles){C=e.radialAxisAngle+m;var y=R(u,f)+F(-m),b=R(u,f)+F(-C);i.bg.attr(\\\"transform\\\",y),i[\\\"radial-grid\\\"].attr(\\\"transform\\\",y),i[\\\"radial-axis\\\"].attr(\\\"transform\\\",b),i[\\\"radial-line\\\"].select(\\\"line\\\").attr(\\\"transform\\\",b),e.updateRadialAxisTitle(d,g,C)}else e.clipPaths.forTraces.select(\\\"path\\\").attr(\\\"transform\\\",R(h,p)+F(m));I.each(function(){var t=n.select(this),e=l.getTranslate(t);t.attr(\\\"transform\\\",R(e.x,e.y)+F([m]))}),D.each(function(){var t=n.select(this),e=t.select(\\\"text\\\"),r=l.getTranslate(t);t.attr(\\\"transform\\\",F([m,e.attr(\\\"x\\\"),e.attr(\\\"y\\\")])+R(r.x,r.y))}),c.rotation=o.modHalf(E,360),e.updateAngularAxis(d,g),e._hasClipOnAxisFalse&&!o.isFullCircle(e.sectorInRad)&&O.call(l.hideOutsideRangePoints,e);var _=!1;for(var A in e.traceHash)if(a.traceIs(A,\\\"gl\\\")){var P=e.traceHash[A],N=o.filterVisible(P);P[0][0].trace._module.plot(r,e,N,g),N.length&&(_=!0)}_&&(w(r),k(r));var j={};B(j),r.emit(\\\"plotly_relayouting\\\",j)}function B(t){t[e.id+\\\".angularaxis.rotation\\\"]=E,e.vangles&&(t[e.id+\\\".radialaxis.angle\\\"]=C)}function N(){D.select(\\\"text\\\").attr(\\\"transform\\\",null);var t={};B(t),a.call(\\\"_guiRelayout\\\",r,t)}y.prepFn=function(n,i,a){var o=t[e.id];S=o.angularaxis.rotation;var s=m.getBoundingClientRect();T=i-s.left,M=a-s.top,z=x(T,M),y.moveFn=P,y.doneFn=N,b(r)},e.vangles&&!o.isFullCircle(e.sectorInRad)&&(y.prepFn=o.noop,_(n.select(m),null)),g.init(y)},O.isPtInside=function(t){var e=this.sectorInRad,r=this.vangles,n=this.angularAxis.c2g(t.theta),i=this.radialAxis,a=i.c2l(t.r),s=i._rl;return(r?M.isPtInsidePolygon:o.isPtInsideSector)(a,n,s,e,r)},O.pathArc=function(t){var e=this.sectorInRad,r=this.vangles;return(r?M.pathPolygon:o.pathArc)(t,e[0],e[1],r)},O.pathSector=function(t){var e=this.sectorInRad,r=this.vangles;return(r?M.pathPolygon:o.pathSector)(t,e[0],e[1],r)},O.pathAnnulus=function(t,e){var r=this.sectorInRad,n=this.vangles;return(n?M.pathPolygonAnnulus:o.pathAnnulus)(t,e,r[0],r[1],n)},O.pathSubplot=function(){var t=this.innerRadius,e=this.radius;return t?this.pathAnnulus(t,e):this.pathSector(e)},O.fillViewInitialKey=function(t,e){t in this.viewInitial||(this.viewInitial[t]=e)}},{\\\"../../components/color\\\":580,\\\"../../components/dragelement\\\":598,\\\"../../components/drawing\\\":601,\\\"../../components/fx\\\":619,\\\"../../components/titles\\\":668,\\\"../../constants/alignment\\\":675,\\\"../../lib\\\":703,\\\"../../lib/clear_gl_canvases\\\":688,\\\"../../lib/setcursor\\\":723,\\\"../../plot_api/subroutines\\\":742,\\\"../../plots/cartesian/axes\\\":751,\\\"../../registry\\\":831,\\\"../cartesian/autorange\\\":750,\\\"../cartesian/dragbox\\\":759,\\\"../cartesian/select\\\":768,\\\"../cartesian/set_convert\\\":769,\\\"../plots\\\":812,\\\"./constants\\\":813,\\\"./helpers\\\":814,\\\"./set_convert\\\":825,d3:157,tinycolor2:524}],825:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../cartesian/set_convert\\\"),a=n.deg2rad,o=n.rad2deg;e.exports=function(t,e,r){switch(i(t,r),t._id){case\\\"x\\\":case\\\"radialaxis\\\":!function(t,e){var r=e._subplot;t.setGeometry=function(){var e=t._rl[0],n=t._rl[1],i=r.innerRadius,a=(r.radius-i)/(n-e),o=i/a,s=e>n?function(t){return t<=0}:function(t){return t>=0};t.c2g=function(r){var n=t.c2l(r)-e;return(s(n)?n:0)+o},t.g2c=function(r){return t.l2c(r+e-o)},t.g2p=function(t){return t*a},t.c2p=function(e){return t.g2p(t.c2g(e))}}}(t,e);break;case\\\"angularaxis\\\":!function(t,e){var r=t.type;if(\\\"linear\\\"===r){var i=t.d2c,s=t.c2d;t.d2c=function(t,e){return function(t,e){return\\\"degrees\\\"===e?a(t):t}(i(t),e)},t.c2d=function(t,e){return s(function(t,e){return\\\"degrees\\\"===e?o(t):t}(t,e))}}t.makeCalcdata=function(e,i){var a,o,s=e[i],l=e._length,c=function(r){return t.d2c(r,e.thetaunit)};if(s){if(n.isTypedArray(s)&&\\\"linear\\\"===r){if(l===s.length)return s;if(s.subarray)return s.subarray(0,l)}for(a=new Array(l),o=0;o<l;o++)a[o]=c(s[o])}else{var u=i+\\\"0\\\",f=\\\"d\\\"+i,h=u in e?c(e[u]):0,p=e[f]?c(e[f]):(t.period||2*Math.PI)/l;for(a=new Array(l),o=0;o<l;o++)a[o]=h+o*p}return a},t.setGeometry=function(){var i,s,l,c,u=e.sector,f=u.map(a),h={clockwise:-1,counterclockwise:1}[t.direction],p=a(t.rotation),d=function(t){return h*t+p},g=function(t){return(t-p)/h};switch(r){case\\\"linear\\\":s=i=n.identity,c=a,l=o,t.range=n.isFullCircle(f)?[u[0],u[0]+360]:f.map(g).map(o);break;case\\\"category\\\":var v=t._categories.length,m=t.period?Math.max(t.period,v):v;0===m&&(m=1),s=c=function(t){return 2*t*Math.PI/m},i=l=function(t){return t*m/Math.PI/2},t.range=[0,m]}t.c2g=function(t){return d(s(t))},t.g2c=function(t){return i(g(t))},t.t2g=function(t){return d(c(t))},t.g2t=function(t){return l(g(t))}}}(t,e)}}},{\\\"../../lib\\\":703,\\\"../cartesian/set_convert\\\":769}],826:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../lib\\\"),i=t(\\\"../plot_api/plot_template\\\"),a=t(\\\"./domain\\\").defaults;e.exports=function(t,e,r,o){var s,l,c=o.type,u=o.attributes,f=o.handleDefaults,h=o.partition||\\\"x\\\",p=e._subplots[c],d=p.length,g=d&&p[0].replace(/\\\\d+$/,\\\"\\\");function v(t,e){return n.coerce(s,l,u,t,e)}for(var m=0;m<d;m++){var y=p[m];s=t[y]?t[y]:t[y]={},l=i.newContainer(e,y,g),v(\\\"uirevision\\\",e.uirevision);var x={};x[h]=[m/d,(m+1)/d],a(l,e,v,x),o.id=y,f(s,l,v,o)}}},{\\\"../lib\\\":703,\\\"../plot_api/plot_template\\\":741,\\\"./domain\\\":776}],827:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./ternary\\\"),i=t(\\\"../../plots/get_data\\\").getSubplotCalcData,a=t(\\\"../../lib\\\").counterRegex;r.name=\\\"ternary\\\";var o=r.attr=\\\"subplot\\\";r.idRoot=\\\"ternary\\\",r.idRegex=r.attrRegex=a(\\\"ternary\\\"),(r.attributes={})[o]={valType:\\\"subplotid\\\",dflt:\\\"ternary\\\",editType:\\\"calc\\\"},r.layoutAttributes=t(\\\"./layout_attributes\\\"),r.supplyLayoutDefaults=t(\\\"./layout_defaults\\\"),r.plot=function(t){for(var e=t._fullLayout,r=t.calcdata,a=e._subplots.ternary,o=0;o<a.length;o++){var s=a[o],l=i(r,\\\"ternary\\\",s),c=e[s]._subplot;c||(c=new n({id:s,graphDiv:t,container:e._ternarylayer.node()},e),e[s]._subplot=c),c.plot(l,e,t._promises)}},r.clean=function(t,e,r,n){for(var i=n._subplots.ternary||[],a=0;a<i.length;a++){var o=i[a],s=n[o]._subplot;!e[o]&&s&&(s.plotContainer.remove(),s.clipDef.remove(),s.clipDefRelative.remove(),s.layers[\\\"a-title\\\"].remove(),s.layers[\\\"b-title\\\"].remove(),s.layers[\\\"c-title\\\"].remove())}}},{\\\"../../lib\\\":703,\\\"../../plots/get_data\\\":786,\\\"./layout_attributes\\\":828,\\\"./layout_defaults\\\":829,\\\"./ternary\\\":830}],828:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/color/attributes\\\"),i=t(\\\"../domain\\\").attributes,a=t(\\\"../cartesian/layout_attributes\\\"),o=t(\\\"../../plot_api/edit_types\\\").overrideAll,s=t(\\\"../../lib/extend\\\").extendFlat,l={title:a.title,color:a.color,tickmode:a.tickmode,nticks:s({},a.nticks,{dflt:6,min:1}),tick0:a.tick0,dtick:a.dtick,tickvals:a.tickvals,ticktext:a.ticktext,ticks:a.ticks,ticklen:a.ticklen,tickwidth:a.tickwidth,tickcolor:a.tickcolor,showticklabels:a.showticklabels,showtickprefix:a.showtickprefix,tickprefix:a.tickprefix,showticksuffix:a.showticksuffix,ticksuffix:a.ticksuffix,showexponent:a.showexponent,exponentformat:a.exponentformat,separatethousands:a.separatethousands,tickfont:a.tickfont,tickangle:a.tickangle,tickformat:a.tickformat,tickformatstops:a.tickformatstops,hoverformat:a.hoverformat,showline:s({},a.showline,{dflt:!0}),linecolor:a.linecolor,linewidth:a.linewidth,showgrid:s({},a.showgrid,{dflt:!0}),gridcolor:a.gridcolor,gridwidth:a.gridwidth,layer:a.layer,min:{valType:\\\"number\\\",dflt:0,min:0},_deprecated:{title:a._deprecated.title,titlefont:a._deprecated.titlefont}},c=e.exports=o({domain:i({name:\\\"ternary\\\"}),bgcolor:{valType:\\\"color\\\",dflt:n.background},sum:{valType:\\\"number\\\",dflt:1,min:0},aaxis:l,baxis:l,caxis:l},\\\"plot\\\",\\\"from-root\\\");c.uirevision={valType:\\\"any\\\",editType:\\\"none\\\"},c.aaxis.uirevision=c.baxis.uirevision=c.caxis.uirevision={valType:\\\"any\\\",editType:\\\"none\\\"}},{\\\"../../components/color/attributes\\\":579,\\\"../../lib/extend\\\":693,\\\"../../plot_api/edit_types\\\":734,\\\"../cartesian/layout_attributes\\\":763,\\\"../domain\\\":776}],829:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/color\\\"),i=t(\\\"../../plot_api/plot_template\\\"),a=t(\\\"../../lib\\\"),o=t(\\\"../subplot_defaults\\\"),s=t(\\\"../cartesian/tick_label_defaults\\\"),l=t(\\\"../cartesian/tick_mark_defaults\\\"),c=t(\\\"../cartesian/tick_value_defaults\\\"),u=t(\\\"../cartesian/line_grid_defaults\\\"),f=t(\\\"./layout_attributes\\\"),h=[\\\"aaxis\\\",\\\"baxis\\\",\\\"caxis\\\"];function p(t,e,r,a){var o,s,l,c=r(\\\"bgcolor\\\"),u=r(\\\"sum\\\");a.bgColor=n.combine(c,a.paper_bgcolor);for(var f=0;f<h.length;f++)s=t[o=h[f]]||{},(l=i.newContainer(e,o))._name=o,d(s,l,a,e);var p=e.aaxis,g=e.baxis,v=e.caxis;p.min+g.min+v.min>=u&&(p.min=0,g.min=0,v.min=0,t.aaxis&&delete t.aaxis.min,t.baxis&&delete t.baxis.min,t.caxis&&delete t.caxis.min)}function d(t,e,r,n){var i=f[e._name];function o(r,n){return a.coerce(t,e,i,r,n)}o(\\\"uirevision\\\",n.uirevision),e.type=\\\"linear\\\";var h=o(\\\"color\\\"),p=h!==i.color.dflt?h:r.font.color,d=e._name.charAt(0).toUpperCase(),g=\\\"Component \\\"+d,v=o(\\\"title.text\\\",g);e._hovertitle=v===g?v:d,a.coerceFont(o,\\\"title.font\\\",{family:r.font.family,size:Math.round(1.2*r.font.size),color:p}),o(\\\"min\\\"),c(t,e,o,\\\"linear\\\"),s(t,e,o,\\\"linear\\\",{}),l(t,e,o,{outerTicks:!0}),o(\\\"showticklabels\\\")&&(a.coerceFont(o,\\\"tickfont\\\",{family:r.font.family,size:r.font.size,color:p}),o(\\\"tickangle\\\"),o(\\\"tickformat\\\")),u(t,e,o,{dfltColor:h,bgColor:r.bgColor,blend:60,showLine:!0,showGrid:!0,noZeroLine:!0,attributes:i}),o(\\\"hoverformat\\\"),o(\\\"layer\\\")}e.exports=function(t,e,r){o(t,e,r,{type:\\\"ternary\\\",attributes:f,handleDefaults:p,font:e.font,paper_bgcolor:e.paper_bgcolor})}},{\\\"../../components/color\\\":580,\\\"../../lib\\\":703,\\\"../../plot_api/plot_template\\\":741,\\\"../cartesian/line_grid_defaults\\\":765,\\\"../cartesian/tick_label_defaults\\\":770,\\\"../cartesian/tick_mark_defaults\\\":771,\\\"../cartesian/tick_value_defaults\\\":772,\\\"../subplot_defaults\\\":826,\\\"./layout_attributes\\\":828}],830:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"tinycolor2\\\"),a=t(\\\"../../registry\\\"),o=t(\\\"../../lib\\\"),s=o._,l=t(\\\"../../components/color\\\"),c=t(\\\"../../components/drawing\\\"),u=t(\\\"../cartesian/set_convert\\\"),f=t(\\\"../../lib/extend\\\").extendFlat,h=t(\\\"../plots\\\"),p=t(\\\"../cartesian/axes\\\"),d=t(\\\"../../components/dragelement\\\"),g=t(\\\"../../components/fx\\\"),v=t(\\\"../../components/titles\\\"),m=t(\\\"../cartesian/select\\\").prepSelect,y=t(\\\"../cartesian/select\\\").selectOnClick,x=t(\\\"../cartesian/select\\\").clearSelect,b=t(\\\"../cartesian/constants\\\");function _(t,e){this.id=t.id,this.graphDiv=t.graphDiv,this.init(e),this.makeFramework(e),this.aTickLayout=null,this.bTickLayout=null,this.cTickLayout=null}e.exports=_;var w=_.prototype;w.init=function(t){this.container=t._ternarylayer,this.defs=t._defs,this.layoutId=t._uid,this.traceHash={},this.layers={}},w.plot=function(t,e){var r=e[this.id],n=e._size;this._hasClipOnAxisFalse=!1;for(var i=0;i<t.length;i++){if(!1===t[i][0].trace.cliponaxis){this._hasClipOnAxisFalse=!0;break}}this.updateLayers(r),this.adjustLayout(r,n),h.generalUpdatePerTraceModule(this.graphDiv,this,t,r),this.layers.plotbg.select(\\\"path\\\").call(l.fill,r.bgcolor)},w.makeFramework=function(t){var e=this.graphDiv,r=t[this.id],n=this.clipId=\\\"clip\\\"+this.layoutId+this.id,i=this.clipIdRelative=\\\"clip-relative\\\"+this.layoutId+this.id;this.clipDef=o.ensureSingleById(t._clips,\\\"clipPath\\\",n,function(t){t.append(\\\"path\\\").attr(\\\"d\\\",\\\"M0,0Z\\\")}),this.clipDefRelative=o.ensureSingleById(t._clips,\\\"clipPath\\\",i,function(t){t.append(\\\"path\\\").attr(\\\"d\\\",\\\"M0,0Z\\\")}),this.plotContainer=o.ensureSingle(this.container,\\\"g\\\",this.id),this.updateLayers(r),c.setClipUrl(this.layers.backplot,n,e),c.setClipUrl(this.layers.grids,n,e)},w.updateLayers=function(t){var e=this.layers,r=[\\\"draglayer\\\",\\\"plotbg\\\",\\\"backplot\\\",\\\"grids\\\"];\\\"below traces\\\"===t.aaxis.layer&&r.push(\\\"aaxis\\\",\\\"aline\\\"),\\\"below traces\\\"===t.baxis.layer&&r.push(\\\"baxis\\\",\\\"bline\\\"),\\\"below traces\\\"===t.caxis.layer&&r.push(\\\"caxis\\\",\\\"cline\\\"),r.push(\\\"frontplot\\\"),\\\"above traces\\\"===t.aaxis.layer&&r.push(\\\"aaxis\\\",\\\"aline\\\"),\\\"above traces\\\"===t.baxis.layer&&r.push(\\\"baxis\\\",\\\"bline\\\"),\\\"above traces\\\"===t.caxis.layer&&r.push(\\\"caxis\\\",\\\"cline\\\");var i=this.plotContainer.selectAll(\\\"g.toplevel\\\").data(r,String),a=[\\\"agrid\\\",\\\"bgrid\\\",\\\"cgrid\\\"];i.enter().append(\\\"g\\\").attr(\\\"class\\\",function(t){return\\\"toplevel \\\"+t}).each(function(t){var r=n.select(this);e[t]=r,\\\"frontplot\\\"===t?r.append(\\\"g\\\").classed(\\\"scatterlayer\\\",!0):\\\"backplot\\\"===t?r.append(\\\"g\\\").classed(\\\"maplayer\\\",!0):\\\"plotbg\\\"===t?r.append(\\\"path\\\").attr(\\\"d\\\",\\\"M0,0Z\\\"):\\\"aline\\\"===t||\\\"bline\\\"===t||\\\"cline\\\"===t?r.append(\\\"path\\\"):\\\"grids\\\"===t&&a.forEach(function(t){e[t]=r.append(\\\"g\\\").classed(\\\"grid \\\"+t,!0)})}),i.order()};var k=Math.sqrt(4/3);w.adjustLayout=function(t,e){var r,n,i,a,o,s,h=this,p=t.domain,d=(p.x[0]+p.x[1])/2,g=(p.y[0]+p.y[1])/2,v=p.x[1]-p.x[0],m=p.y[1]-p.y[0],y=v*e.w,x=m*e.h,b=t.sum,_=t.aaxis.min,w=t.baxis.min,T=t.caxis.min;y>k*x?i=(a=x)*k:a=(i=y)/k,o=v*i/y,s=m*a/x,r=e.l+e.w*d-i/2,n=e.t+e.h*(1-g)-a/2,h.x0=r,h.y0=n,h.w=i,h.h=a,h.sum=b,h.xaxis={type:\\\"linear\\\",range:[_+2*T-b,b-_-2*w],domain:[d-o/2,d+o/2],_id:\\\"x\\\"},u(h.xaxis,h.graphDiv._fullLayout),h.xaxis.setScale(),h.xaxis.isPtWithinRange=function(t){return t.a>=h.aaxis.range[0]&&t.a<=h.aaxis.range[1]&&t.b>=h.baxis.range[1]&&t.b<=h.baxis.range[0]&&t.c>=h.caxis.range[1]&&t.c<=h.caxis.range[0]},h.yaxis={type:\\\"linear\\\",range:[_,b-w-T],domain:[g-s/2,g+s/2],_id:\\\"y\\\"},u(h.yaxis,h.graphDiv._fullLayout),h.yaxis.setScale(),h.yaxis.isPtWithinRange=function(){return!0};var A=h.yaxis.domain[0],M=h.aaxis=f({},t.aaxis,{range:[_,b-w-T],side:\\\"left\\\",tickangle:(+t.aaxis.tickangle||0)-30,domain:[A,A+s*k],anchor:\\\"free\\\",position:0,_id:\\\"y\\\",_length:i});u(M,h.graphDiv._fullLayout),M.setScale();var S=h.baxis=f({},t.baxis,{range:[b-_-T,w],side:\\\"bottom\\\",domain:h.xaxis.domain,anchor:\\\"free\\\",position:0,_id:\\\"x\\\",_length:i});u(S,h.graphDiv._fullLayout),S.setScale();var E=h.caxis=f({},t.caxis,{range:[b-_-w,T],side:\\\"right\\\",tickangle:(+t.caxis.tickangle||0)+30,domain:[A,A+s*k],anchor:\\\"free\\\",position:0,_id:\\\"y\\\",_length:i});u(E,h.graphDiv._fullLayout),E.setScale();var C=\\\"M\\\"+r+\\\",\\\"+(n+a)+\\\"h\\\"+i+\\\"l-\\\"+i/2+\\\",-\\\"+a+\\\"Z\\\";h.clipDef.select(\\\"path\\\").attr(\\\"d\\\",C),h.layers.plotbg.select(\\\"path\\\").attr(\\\"d\\\",C);var L=\\\"M0,\\\"+a+\\\"h\\\"+i+\\\"l-\\\"+i/2+\\\",-\\\"+a+\\\"Z\\\";h.clipDefRelative.select(\\\"path\\\").attr(\\\"d\\\",L);var z=\\\"translate(\\\"+r+\\\",\\\"+n+\\\")\\\";h.plotContainer.selectAll(\\\".scatterlayer,.maplayer\\\").attr(\\\"transform\\\",z),h.clipDefRelative.select(\\\"path\\\").attr(\\\"transform\\\",null);var O=\\\"translate(\\\"+(r-S._offset)+\\\",\\\"+(n+a)+\\\")\\\";h.layers.baxis.attr(\\\"transform\\\",O),h.layers.bgrid.attr(\\\"transform\\\",O);var I=\\\"translate(\\\"+(r+i/2)+\\\",\\\"+n+\\\")rotate(30)translate(0,\\\"+-M._offset+\\\")\\\";h.layers.aaxis.attr(\\\"transform\\\",I),h.layers.agrid.attr(\\\"transform\\\",I);var D=\\\"translate(\\\"+(r+i/2)+\\\",\\\"+n+\\\")rotate(-30)translate(0,\\\"+-E._offset+\\\")\\\";h.layers.caxis.attr(\\\"transform\\\",D),h.layers.cgrid.attr(\\\"transform\\\",D),h.drawAxes(!0),h.layers.aline.select(\\\"path\\\").attr(\\\"d\\\",M.showline?\\\"M\\\"+r+\\\",\\\"+(n+a)+\\\"l\\\"+i/2+\\\",-\\\"+a:\\\"M0,0\\\").call(l.stroke,M.linecolor||\\\"#000\\\").style(\\\"stroke-width\\\",(M.linewidth||0)+\\\"px\\\"),h.layers.bline.select(\\\"path\\\").attr(\\\"d\\\",S.showline?\\\"M\\\"+r+\\\",\\\"+(n+a)+\\\"h\\\"+i:\\\"M0,0\\\").call(l.stroke,S.linecolor||\\\"#000\\\").style(\\\"stroke-width\\\",(S.linewidth||0)+\\\"px\\\"),h.layers.cline.select(\\\"path\\\").attr(\\\"d\\\",E.showline?\\\"M\\\"+(r+i/2)+\\\",\\\"+n+\\\"l\\\"+i/2+\\\",\\\"+a:\\\"M0,0\\\").call(l.stroke,E.linecolor||\\\"#000\\\").style(\\\"stroke-width\\\",(E.linewidth||0)+\\\"px\\\"),h.graphDiv._context.staticPlot||h.initInteractions(),c.setClipUrl(h.layers.frontplot,h._hasClipOnAxisFalse?null:h.clipId,h.graphDiv)},w.drawAxes=function(t){var e=this.graphDiv,r=this.id.substr(7)+\\\"title\\\",n=this.layers,i=this.aaxis,a=this.baxis,o=this.caxis;if(this.drawAx(i),this.drawAx(a),this.drawAx(o),t){var l=Math.max(i.showticklabels?i.tickfont.size/2:0,(o.showticklabels?.75*o.tickfont.size:0)+(\\\"outside\\\"===o.ticks?.87*o.ticklen:0)),c=(a.showticklabels?a.tickfont.size:0)+(\\\"outside\\\"===a.ticks?a.ticklen:0)+3;n[\\\"a-title\\\"]=v.draw(e,\\\"a\\\"+r,{propContainer:i,propName:this.id+\\\".aaxis.title\\\",placeholder:s(e,\\\"Click to enter Component A title\\\"),attributes:{x:this.x0+this.w/2,y:this.y0-i.title.font.size/3-l,\\\"text-anchor\\\":\\\"middle\\\"}}),n[\\\"b-title\\\"]=v.draw(e,\\\"b\\\"+r,{propContainer:a,propName:this.id+\\\".baxis.title\\\",placeholder:s(e,\\\"Click to enter Component B title\\\"),attributes:{x:this.x0-c,y:this.y0+this.h+.83*a.title.font.size+c,\\\"text-anchor\\\":\\\"middle\\\"}}),n[\\\"c-title\\\"]=v.draw(e,\\\"c\\\"+r,{propContainer:o,propName:this.id+\\\".caxis.title\\\",placeholder:s(e,\\\"Click to enter Component C title\\\"),attributes:{x:this.x0+this.w+c,y:this.y0+this.h+.83*o.title.font.size+c,\\\"text-anchor\\\":\\\"middle\\\"}})}},w.drawAx=function(t){var e,r=this.graphDiv,n=t._name,i=n.charAt(0),a=t._id,s=this.layers[n],l=i+\\\"tickLayout\\\",c=(e=t).ticks+String(e.ticklen)+String(e.showticklabels);this[l]!==c&&(s.selectAll(\\\".\\\"+a+\\\"tick\\\").remove(),this[l]=c),t.setScale();var u=p.calcTicks(t),f=p.clipEnds(t,u),h=p.makeTransFn(t),d=p.getTickSigns(t)[2],g=o.deg2rad(30),v=d*(t.linewidth||1)/2,m=d*t.ticklen,y=this.w,x=this.h,b=\\\"b\\\"===i?\\\"M0,\\\"+v+\\\"l\\\"+Math.sin(g)*m+\\\",\\\"+Math.cos(g)*m:\\\"M\\\"+v+\\\",0l\\\"+Math.cos(g)*m+\\\",\\\"+-Math.sin(g)*m,_={a:\\\"M0,0l\\\"+x+\\\",-\\\"+y/2,b:\\\"M0,0l-\\\"+y/2+\\\",-\\\"+x,c:\\\"M0,0l-\\\"+x+\\\",\\\"+y/2}[i];p.drawTicks(r,t,{vals:\\\"inside\\\"===t.ticks?f:u,layer:s,path:b,transFn:h,crisp:!1}),p.drawGrid(r,t,{vals:f,layer:this.layers[i+\\\"grid\\\"],path:_,transFn:h,crisp:!1}),p.drawLabels(r,t,{vals:u,layer:s,transFn:h,labelFns:p.makeLabelFns(t,0,30)})};var T=b.MINZOOM/2+.87,A=\\\"m-0.87,.5h\\\"+T+\\\"v3h-\\\"+(T+5.2)+\\\"l\\\"+(T/2+2.6)+\\\",-\\\"+(.87*T+4.5)+\\\"l2.6,1.5l-\\\"+T/2+\\\",\\\"+.87*T+\\\"Z\\\",M=\\\"m0.87,.5h-\\\"+T+\\\"v3h\\\"+(T+5.2)+\\\"l-\\\"+(T/2+2.6)+\\\",-\\\"+(.87*T+4.5)+\\\"l-2.6,1.5l\\\"+T/2+\\\",\\\"+.87*T+\\\"Z\\\",S=\\\"m0,1l\\\"+T/2+\\\",\\\"+.87*T+\\\"l2.6,-1.5l-\\\"+(T/2+2.6)+\\\",-\\\"+(.87*T+4.5)+\\\"l-\\\"+(T/2+2.6)+\\\",\\\"+(.87*T+4.5)+\\\"l2.6,1.5l\\\"+T/2+\\\",-\\\"+.87*T+\\\"Z\\\",E=\\\"m0.5,0.5h5v-2h-5v-5h-2v5h-5v2h5v5h2Z\\\",C=!0;function L(t){n.select(t).selectAll(\\\".zoombox,.js-zoombox-backdrop,.js-zoombox-menu,.zoombox-corners\\\").remove()}w.initInteractions=function(){var t,e,r,n,u,f,h,p,v,_,w=this,T=w.layers.plotbg.select(\\\"path\\\").node(),z=w.graphDiv,O=z._fullLayout._zoomlayer,I={element:T,gd:z,plotinfo:{id:w.id,xaxis:w.xaxis,yaxis:w.yaxis},subplot:w.id,prepFn:function(a,o,s){I.xaxes=[w.xaxis],I.yaxes=[w.yaxis];var c=z._fullLayout.dragmode;I.minDrag=\\\"lasso\\\"===c?1:void 0,\\\"zoom\\\"===c?(I.moveFn=N,I.clickFn=P,I.doneFn=j,function(a,o,s){var c=T.getBoundingClientRect();t=o-c.left,e=s-c.top,r={a:w.aaxis.range[0],b:w.baxis.range[1],c:w.caxis.range[1]},u=r,n=w.aaxis.range[1]-r.a,f=i(w.graphDiv._fullLayout[w.id].bgcolor).getLuminance(),h=\\\"M0,\\\"+w.h+\\\"L\\\"+w.w/2+\\\", 0L\\\"+w.w+\\\",\\\"+w.h+\\\"Z\\\",p=!1,v=O.append(\\\"path\\\").attr(\\\"class\\\",\\\"zoombox\\\").attr(\\\"transform\\\",\\\"translate(\\\"+w.x0+\\\", \\\"+w.y0+\\\")\\\").style({fill:f>.2?\\\"rgba(0,0,0,0)\\\":\\\"rgba(255,255,255,0)\\\",\\\"stroke-width\\\":0}).attr(\\\"d\\\",h),_=O.append(\\\"path\\\").attr(\\\"class\\\",\\\"zoombox-corners\\\").attr(\\\"transform\\\",\\\"translate(\\\"+w.x0+\\\", \\\"+w.y0+\\\")\\\").style({fill:l.background,stroke:l.defaultLine,\\\"stroke-width\\\":1,opacity:0}).attr(\\\"d\\\",\\\"M0,0Z\\\"),x(z)}(0,o,s)):\\\"pan\\\"===c?(I.moveFn=V,I.clickFn=P,I.doneFn=U,r={a:w.aaxis.range[0],b:w.baxis.range[1],c:w.caxis.range[1]},u=r,x(z)):\\\"select\\\"!==c&&\\\"lasso\\\"!==c||m(a,o,s,I,c)}};function D(t){var e={};return e[w.id+\\\".aaxis.min\\\"]=t.a,e[w.id+\\\".baxis.min\\\"]=t.b,e[w.id+\\\".caxis.min\\\"]=t.c,e}function P(t,e){var r=z._fullLayout.clickmode;L(z),2===t&&(z.emit(\\\"plotly_doubleclick\\\",null),a.call(\\\"_guiRelayout\\\",z,D({a:0,b:0,c:0}))),r.indexOf(\\\"select\\\")>-1&&1===t&&y(e,z,[w.xaxis],[w.yaxis],w.id,I),r.indexOf(\\\"event\\\")>-1&&g.click(z,e,w.id)}function R(t,e){return 1-e/w.h}function F(t,e){return 1-(t+(w.h-e)/Math.sqrt(3))/w.w}function B(t,e){return(t-(w.h-e)/Math.sqrt(3))/w.w}function N(i,a){var o=t+i,s=e+a,l=Math.max(0,Math.min(1,R(0,e),R(0,s))),c=Math.max(0,Math.min(1,F(t,e),F(o,s))),d=Math.max(0,Math.min(1,B(t,e),B(o,s))),g=(l/2+d)*w.w,m=(1-l/2-c)*w.w,y=(g+m)/2,x=m-g,T=(1-l)*w.h,C=T-x/k;x<b.MINZOOM?(u=r,v.attr(\\\"d\\\",h),_.attr(\\\"d\\\",\\\"M0,0Z\\\")):(u={a:r.a+l*n,b:r.b+c*n,c:r.c+d*n},v.attr(\\\"d\\\",h+\\\"M\\\"+g+\\\",\\\"+T+\\\"H\\\"+m+\\\"L\\\"+y+\\\",\\\"+C+\\\"L\\\"+g+\\\",\\\"+T+\\\"Z\\\"),_.attr(\\\"d\\\",\\\"M\\\"+t+\\\",\\\"+e+E+\\\"M\\\"+g+\\\",\\\"+T+A+\\\"M\\\"+m+\\\",\\\"+T+M+\\\"M\\\"+y+\\\",\\\"+C+S)),p||(v.transition().style(\\\"fill\\\",f>.2?\\\"rgba(0,0,0,0.4)\\\":\\\"rgba(255,255,255,0.3)\\\").duration(200),_.transition().style(\\\"opacity\\\",1).duration(200),p=!0),z.emit(\\\"plotly_relayouting\\\",D(u))}function j(){L(z),u!==r&&(a.call(\\\"_guiRelayout\\\",z,D(u)),C&&z.data&&z._context.showTips&&(o.notifier(s(z,\\\"Double-click to zoom back out\\\"),\\\"long\\\"),C=!1))}function V(t,e){var n=t/w.xaxis._m,i=e/w.yaxis._m,a=[(u={a:r.a-i,b:r.b+(n+i)/2,c:r.c-(n-i)/2}).a,u.b,u.c].sort(),o=a.indexOf(u.a),s=a.indexOf(u.b),l=a.indexOf(u.c);a[0]<0&&(a[1]+a[0]/2<0?(a[2]+=a[0]+a[1],a[0]=a[1]=0):(a[2]+=a[0]/2,a[1]+=a[0]/2,a[0]=0),u={a:a[o],b:a[s],c:a[l]},e=(r.a-u.a)*w.yaxis._m,t=(r.c-u.c-r.b+u.b)*w.xaxis._m);var f=\\\"translate(\\\"+(w.x0+t)+\\\",\\\"+(w.y0+e)+\\\")\\\";w.plotContainer.selectAll(\\\".scatterlayer,.maplayer\\\").attr(\\\"transform\\\",f);var h=\\\"translate(\\\"+-t+\\\",\\\"+-e+\\\")\\\";w.clipDefRelative.select(\\\"path\\\").attr(\\\"transform\\\",h),w.aaxis.range=[u.a,w.sum-u.b-u.c],w.baxis.range=[w.sum-u.a-u.c,u.b],w.caxis.range=[w.sum-u.a-u.b,u.c],w.drawAxes(!1),w._hasClipOnAxisFalse&&w.plotContainer.select(\\\".scatterlayer\\\").selectAll(\\\".trace\\\").call(c.hideOutsideRangePoints,w),z.emit(\\\"plotly_relayouting\\\",D(u))}function U(){a.call(\\\"_guiRelayout\\\",z,D(u))}T.onmousemove=function(t){g.hover(z,t,w.id),z._fullLayout._lasthover=T,z._fullLayout._hoversubplot=w.id},T.onmouseout=function(t){z._dragging||d.unhover(z,t)},d.init(I)}},{\\\"../../components/color\\\":580,\\\"../../components/dragelement\\\":598,\\\"../../components/drawing\\\":601,\\\"../../components/fx\\\":619,\\\"../../components/titles\\\":668,\\\"../../lib\\\":703,\\\"../../lib/extend\\\":693,\\\"../../registry\\\":831,\\\"../cartesian/axes\\\":751,\\\"../cartesian/constants\\\":757,\\\"../cartesian/select\\\":768,\\\"../cartesian/set_convert\\\":769,\\\"../plots\\\":812,d3:157,tinycolor2:524}],831:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./lib/loggers\\\"),i=t(\\\"./lib/noop\\\"),a=t(\\\"./lib/push_unique\\\"),o=t(\\\"./lib/is_plain_object\\\"),s=t(\\\"./lib/extend\\\"),l=t(\\\"./plots/attributes\\\"),c=t(\\\"./plots/layout_attributes\\\"),u=s.extendFlat,f=s.extendDeepAll;function h(t){var e=t.name,i=t.categories,a=t.meta;if(r.modules[e])n.log(\\\"Type \\\"+e+\\\" already registered\\\");else{r.subplotsRegistry[t.basePlotModule.name]||function(t){var e=t.name;if(r.subplotsRegistry[e])return void n.log(\\\"Plot type \\\"+e+\\\" already registered.\\\");for(var i in v(t),r.subplotsRegistry[e]=t,r.componentsRegistry)x(i,t.name)}(t.basePlotModule);for(var o={},s=0;s<i.length;s++)o[i[s]]=!0,r.allCategories[i[s]]=!0;for(var l in r.modules[e]={_module:t,categories:o},a&&Object.keys(a).length&&(r.modules[e].meta=a),r.allTypes.push(e),r.componentsRegistry)m(l,e);t.layoutAttributes&&u(r.traceLayoutAttributes,t.layoutAttributes)}}function p(t){if(\\\"string\\\"!=typeof t.name)throw new Error(\\\"Component module *name* must be a string.\\\");var e=t.name;for(var n in r.componentsRegistry[e]=t,t.layoutAttributes&&(t.layoutAttributes._isLinkedToArray&&a(r.layoutArrayContainers,e),v(t)),r.modules)m(e,n);for(var i in r.subplotsRegistry)x(e,i);for(var o in r.transformsRegistry)y(e,o);t.schema&&t.schema.layout&&f(c,t.schema.layout)}function d(t){if(\\\"string\\\"!=typeof t.name)throw new Error(\\\"Transform module *name* must be a string.\\\");var e=\\\"Transform module \\\"+t.name,i=\\\"function\\\"==typeof t.transform,a=\\\"function\\\"==typeof t.calcTransform;if(!i&&!a)throw new Error(e+\\\" is missing a *transform* or *calcTransform* method.\\\");for(var s in i&&a&&n.log([e+\\\" has both a *transform* and *calcTransform* methods.\\\",\\\"Please note that all *transform* methods are executed\\\",\\\"before all *calcTransform* methods.\\\"].join(\\\" \\\")),o(t.attributes)||n.log(e+\\\" registered without an *attributes* object.\\\"),\\\"function\\\"!=typeof t.supplyDefaults&&n.log(e+\\\" registered without a *supplyDefaults* method.\\\"),r.transformsRegistry[t.name]=t,r.componentsRegistry)y(s,t.name)}function g(t){var e=t.name,n=e.split(\\\"-\\\")[0],i=t.dictionary,a=t.format,o=i&&Object.keys(i).length,s=a&&Object.keys(a).length,l=r.localeRegistry,c=l[e];if(c||(l[e]=c={}),n!==e){var u=l[n];u||(l[n]=u={}),o&&u.dictionary===c.dictionary&&(u.dictionary=i),s&&u.format===c.format&&(u.format=a)}o&&(c.dictionary=i),s&&(c.format=a)}function v(t){if(t.layoutAttributes){var e=t.layoutAttributes._arrayAttrRegexps;if(e)for(var n=0;n<e.length;n++)a(r.layoutArrayRegexes,e[n])}}function m(t,e){var n=r.componentsRegistry[t].schema;if(n&&n.traces){var i=n.traces[e];i&&f(r.modules[e]._module.attributes,i)}}function y(t,e){var n=r.componentsRegistry[t].schema;if(n&&n.transforms){var i=n.transforms[e];i&&f(r.transformsRegistry[e].attributes,i)}}function x(t,e){var n=r.componentsRegistry[t].schema;if(n&&n.subplots){var i=r.subplotsRegistry[e],a=i.layoutAttributes,o=\\\"subplot\\\"===i.attr?i.name:i.attr;Array.isArray(o)&&(o=o[0]);var s=n.subplots[o];a&&s&&f(a,s)}}function b(t){return\\\"object\\\"==typeof t&&(t=t.type),t}r.modules={},r.allCategories={},r.allTypes=[],r.subplotsRegistry={},r.transformsRegistry={},r.componentsRegistry={},r.layoutArrayContainers=[],r.layoutArrayRegexes=[],r.traceLayoutAttributes={},r.localeRegistry={},r.apiMethodRegistry={},r.collectableSubplotTypes=null,r.register=function(t){if(r.collectableSubplotTypes=null,!t)throw new Error(\\\"No argument passed to Plotly.register.\\\");t&&!Array.isArray(t)&&(t=[t]);for(var e=0;e<t.length;e++){var n=t[e];if(!n)throw new Error(\\\"Invalid module was attempted to be registered!\\\");switch(n.moduleType){case\\\"trace\\\":h(n);break;case\\\"transform\\\":d(n);break;case\\\"component\\\":p(n);break;case\\\"locale\\\":g(n);break;case\\\"apiMethod\\\":var i=n.name;r.apiMethodRegistry[i]=n.fn;break;default:throw new Error(\\\"Invalid module was attempted to be registered!\\\")}}},r.getModule=function(t){var e=r.modules[b(t)];return!!e&&e._module},r.traceIs=function(t,e){if(\\\"various\\\"===(t=b(t)))return!1;var i=r.modules[t];return i||(t&&\\\"area\\\"!==t&&n.log(\\\"Unrecognized trace type \\\"+t+\\\".\\\"),i=r.modules[l.type.dflt]),!!i.categories[e]},r.getTransformIndices=function(t,e){for(var r=[],n=t.transforms||[],i=0;i<n.length;i++)n[i].type===e&&r.push(i);return r},r.hasTransform=function(t,e){for(var r=t.transforms||[],n=0;n<r.length;n++)if(r[n].type===e)return!0;return!1},r.getComponentMethod=function(t,e){var n=r.componentsRegistry[t];return n&&n[e]||i},r.call=function(){var t=arguments[0],e=[].slice.call(arguments,1);return r.apiMethodRegistry[t].apply(null,e)}},{\\\"./lib/extend\\\":693,\\\"./lib/is_plain_object\\\":704,\\\"./lib/loggers\\\":707,\\\"./lib/noop\\\":712,\\\"./lib/push_unique\\\":717,\\\"./plots/attributes\\\":748,\\\"./plots/layout_attributes\\\":803}],832:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../registry\\\"),i=t(\\\"../lib\\\"),a=i.extendFlat,o=i.extendDeep;function s(t){var e;switch(t){case\\\"themes__thumb\\\":e={autosize:!0,width:150,height:150,title:{text:\\\"\\\"},showlegend:!1,margin:{l:5,r:5,t:5,b:5,pad:0},annotations:[]};break;case\\\"thumbnail\\\":e={title:{text:\\\"\\\"},hidesources:!0,showlegend:!1,borderwidth:0,bordercolor:\\\"\\\",margin:{l:1,r:1,t:1,b:1,pad:0},annotations:[]};break;default:e={}}return e}e.exports=function(t,e){var r;t.framework&&t.framework.isPolar&&(t=t.framework.getConfig());var i,l=t.data,c=t.layout,u=o([],l),f=o({},c,s(e.tileClass)),h=t._context||{};if(e.width&&(f.width=e.width),e.height&&(f.height=e.height),\\\"thumbnail\\\"===e.tileClass||\\\"themes__thumb\\\"===e.tileClass){f.annotations=[];var p=Object.keys(f);for(r=0;r<p.length;r++)i=p[r],[\\\"xaxis\\\",\\\"yaxis\\\",\\\"zaxis\\\"].indexOf(i.slice(0,5))>-1&&(f[p[r]].title={text:\\\"\\\"});for(r=0;r<u.length;r++){var d=u[r];d.showscale=!1,d.marker&&(d.marker.showscale=!1),n.traceIs(d,\\\"pie-like\\\")&&(d.textposition=\\\"none\\\")}}if(Array.isArray(e.annotations))for(r=0;r<e.annotations.length;r++)f.annotations.push(e.annotations[r]);var g=Object.keys(f).filter(function(t){return t.match(/^scene\\\\d*$/)});if(g.length){var v={};for(\\\"thumbnail\\\"===e.tileClass&&(v={title:{text:\\\"\\\"},showaxeslabels:!1,showticklabels:!1,linetickenable:!1}),r=0;r<g.length;r++){var m=f[g[r]];m.xaxis||(m.xaxis={}),m.yaxis||(m.yaxis={}),m.zaxis||(m.zaxis={}),a(m.xaxis,v),a(m.yaxis,v),a(m.zaxis,v),m._scene=null}}var y=document.createElement(\\\"div\\\");e.tileClass&&(y.className=e.tileClass);var x={gd:y,td:y,layout:f,data:u,config:{staticPlot:void 0===e.staticPlot||e.staticPlot,plotGlPixelRatio:void 0===e.plotGlPixelRatio?2:e.plotGlPixelRatio,displaylogo:e.displaylogo||!1,showLink:e.showLink||!1,showTips:e.showTips||!1,mapboxAccessToken:h.mapboxAccessToken}};return\\\"transparent\\\"!==e.setBackground&&(x.config.setBackground=e.setBackground||\\\"opaque\\\"),x.gd.defaultLayout=s(e.tileClass),x}},{\\\"../lib\\\":703,\\\"../registry\\\":831}],833:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../plot_api/to_image\\\"),i=t(\\\"../lib\\\"),a=t(\\\"./filesaver\\\");e.exports=function(t,e){var r;return i.isPlainObject(t)||(r=i.getGraphDiv(t)),(e=e||{}).format=e.format||\\\"png\\\",new Promise(function(o,s){r&&r._snapshotInProgress&&s(new Error(\\\"Snapshotting already in progress.\\\")),i.isIE()&&\\\"svg\\\"!==e.format&&s(new Error(\\\"Sorry IE does not support downloading from canvas. Try {format:'svg'} instead.\\\")),r&&(r._snapshotInProgress=!0);var l=n(t,e),c=e.filename||t.fn||\\\"newplot\\\";c+=\\\".\\\"+e.format,l.then(function(t){return r&&(r._snapshotInProgress=!1),a(t,c)}).then(function(t){o(t)}).catch(function(t){r&&(r._snapshotInProgress=!1),s(t)})})}},{\\\"../lib\\\":703,\\\"../plot_api/to_image\\\":744,\\\"./filesaver\\\":834}],834:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){var r=document.createElement(\\\"a\\\"),n=\\\"download\\\"in r,i=/Version\\\\/[\\\\d\\\\.]+.*Safari/.test(navigator.userAgent);return new Promise(function(a,o){if(\\\"undefined\\\"!=typeof navigator&&/MSIE [1-9]\\\\./.test(navigator.userAgent)&&o(new Error(\\\"IE < 10 unsupported\\\")),i&&(document.location.href=\\\"data:application/octet-stream\\\"+t.slice(t.search(/[,;]/)),a(e)),e||(e=\\\"download\\\"),n&&(r.href=t,r.download=e,document.body.appendChild(r),r.click(),document.body.removeChild(r),a(e)),\\\"undefined\\\"!=typeof navigator&&navigator.msSaveBlob){var s=t.split(/^data:image\\\\/svg\\\\+xml,/)[1],l=decodeURIComponent(s);navigator.msSaveBlob(new Blob([l]),e),a(e)}o(new Error(\\\"download error\\\"))})}},{}],835:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../registry\\\");r.getDelay=function(t){return t._has&&(t._has(\\\"gl3d\\\")||t._has(\\\"gl2d\\\")||t._has(\\\"mapbox\\\"))?500:0},r.getRedrawFunc=function(t){return function(){var e=t._fullLayout||{};!(e._has&&e._has(\\\"polar\\\"))&&t.data&&t.data[0]&&t.data[0].r||n.getComponentMethod(\\\"colorbar\\\",\\\"draw\\\")(t)}}},{\\\"../registry\\\":831}],836:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./helpers\\\"),i={getDelay:n.getDelay,getRedrawFunc:n.getRedrawFunc,clone:t(\\\"./cloneplot\\\"),toSVG:t(\\\"./tosvg\\\"),svgToImg:t(\\\"./svgtoimg\\\"),toImage:t(\\\"./toimage\\\"),downloadImage:t(\\\"./download\\\")};e.exports=i},{\\\"./cloneplot\\\":832,\\\"./download\\\":833,\\\"./helpers\\\":835,\\\"./svgtoimg\\\":837,\\\"./toimage\\\":838,\\\"./tosvg\\\":839}],837:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../lib\\\"),i=t(\\\"events\\\").EventEmitter;e.exports=function(t){var e=t.emitter||new i,r=new Promise(function(i,a){var o=window.Image,s=t.svg,l=t.format||\\\"png\\\";if(n.isIE()&&\\\"svg\\\"!==l){var c=new Error(\\\"Sorry IE does not support downloading from canvas. Try {format:'svg'} instead.\\\");return a(c),t.promise?r:e.emit(\\\"error\\\",c)}var u=t.canvas,f=t.scale||1,h=t.width||300,p=t.height||150,d=f*h,g=f*p,v=u.getContext(\\\"2d\\\"),m=new o,y=\\\"data:image/svg+xml,\\\"+encodeURIComponent(s);u.width=d,u.height=g,m.onload=function(){var r;switch(\\\"svg\\\"!==l&&v.drawImage(m,0,0,d,g),l){case\\\"jpeg\\\":r=u.toDataURL(\\\"image/jpeg\\\");break;case\\\"png\\\":r=u.toDataURL(\\\"image/png\\\");break;case\\\"webp\\\":r=u.toDataURL(\\\"image/webp\\\");break;case\\\"svg\\\":r=y;break;default:var n=\\\"Image format is not jpeg, png, svg or webp.\\\";if(a(new Error(n)),!t.promise)return e.emit(\\\"error\\\",n)}i(r),t.promise||e.emit(\\\"success\\\",r)},m.onerror=function(r){if(a(r),!t.promise)return e.emit(\\\"error\\\",r)},m.src=y});return t.promise?r:e}},{\\\"../lib\\\":703,events:97}],838:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"events\\\").EventEmitter,i=t(\\\"../registry\\\"),a=t(\\\"../lib\\\"),o=t(\\\"./helpers\\\"),s=t(\\\"./cloneplot\\\"),l=t(\\\"./tosvg\\\"),c=t(\\\"./svgtoimg\\\");e.exports=function(t,e){var r=new n,u=s(t,{format:\\\"png\\\"}),f=u.gd;f.style.position=\\\"absolute\\\",f.style.left=\\\"-5000px\\\",document.body.appendChild(f);var h=o.getRedrawFunc(f);return i.call(\\\"plot\\\",f,u.data,u.layout,u.config).then(h).then(function(){var t=o.getDelay(f._fullLayout);setTimeout(function(){var t=l(f),n=document.createElement(\\\"canvas\\\");n.id=a.randstr(),(r=c({format:e.format,width:f._fullLayout.width,height:f._fullLayout.height,canvas:n,emitter:r,svg:t})).clean=function(){f&&document.body.removeChild(f)}},t)}).catch(function(t){r.emit(\\\"error\\\",t)}),r}},{\\\"../lib\\\":703,\\\"../registry\\\":831,\\\"./cloneplot\\\":832,\\\"./helpers\\\":835,\\\"./svgtoimg\\\":837,\\\"./tosvg\\\":839,events:97}],839:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../lib\\\"),a=t(\\\"../components/drawing\\\"),o=t(\\\"../components/color\\\"),s=t(\\\"../constants/xmlns_namespaces\\\"),l=/\\\"/g,c=new RegExp('(\\\"TOBESTRIPPED)|(TOBESTRIPPED\\\")',\\\"g\\\");e.exports=function(t,e,r){var u,f=t._fullLayout,h=f._paper,p=f._toppaper,d=f.width,g=f.height;h.insert(\\\"rect\\\",\\\":first-child\\\").call(a.setRect,0,0,d,g).call(o.fill,f.paper_bgcolor);var v=f._basePlotModules||[];for(u=0;u<v.length;u++){var m=v[u];m.toSVG&&m.toSVG(t)}if(p){var y=p.node().childNodes,x=Array.prototype.slice.call(y);for(u=0;u<x.length;u++){var b=x[u];b.childNodes.length&&h.node().appendChild(b)}}f._draggers&&f._draggers.remove(),h.node().style.background=\\\"\\\",h.selectAll(\\\"text\\\").attr({\\\"data-unformatted\\\":null,\\\"data-math\\\":null}).each(function(){var t=n.select(this);if(\\\"hidden\\\"!==this.style.visibility&&\\\"none\\\"!==this.style.display){t.style({visibility:null,display:null});var e=this.style.fontFamily;e&&-1!==e.indexOf('\\\"')&&t.style(\\\"font-family\\\",e.replace(l,\\\"TOBESTRIPPED\\\"))}else t.remove()}),h.selectAll(\\\".point, .scatterpts, .legendfill>path, .legendlines>path, .cbfill\\\").each(function(){var t=n.select(this),e=this.style.fill;e&&-1!==e.indexOf(\\\"url(\\\")&&t.style(\\\"fill\\\",e.replace(l,\\\"TOBESTRIPPED\\\"));var r=this.style.stroke;r&&-1!==r.indexOf(\\\"url(\\\")&&t.style(\\\"stroke\\\",r.replace(l,\\\"TOBESTRIPPED\\\"))}),\\\"pdf\\\"!==e&&\\\"eps\\\"!==e||h.selectAll(\\\"#MathJax_SVG_glyphs path\\\").attr(\\\"stroke-width\\\",0),h.node().setAttributeNS(s.xmlns,\\\"xmlns\\\",s.svg),h.node().setAttributeNS(s.xmlns,\\\"xmlns:xlink\\\",s.xlink),\\\"svg\\\"===e&&r&&(h.attr(\\\"width\\\",r*d),h.attr(\\\"height\\\",r*g),h.attr(\\\"viewBox\\\",\\\"0 0 \\\"+d+\\\" \\\"+g));var _=(new window.XMLSerializer).serializeToString(h.node());return _=function(t){var e=n.select(\\\"body\\\").append(\\\"div\\\").style({display:\\\"none\\\"}).html(\\\"\\\"),r=t.replace(/(&[^;]*;)/gi,function(t){return\\\"&lt;\\\"===t?\\\"&#60;\\\":\\\"&rt;\\\"===t?\\\"&#62;\\\":-1!==t.indexOf(\\\"<\\\")||-1!==t.indexOf(\\\">\\\")?\\\"\\\":e.html(t).text()});return e.remove(),r}(_),_=(_=_.replace(/&(?!\\\\w+;|\\\\#[0-9]+;| \\\\#x[0-9A-F]+;)/g,\\\"&amp;\\\")).replace(c,\\\"'\\\"),i.isIE()&&(_=(_=(_=_.replace(/\\\"/gi,\\\"'\\\")).replace(/(\\\\('#)([^']*)('\\\\))/gi,'(\\\"#$2\\\")')).replace(/(\\\\\\\\')/gi,'\\\"')),_}},{\\\"../components/color\\\":580,\\\"../components/drawing\\\":601,\\\"../constants/xmlns_namespaces\\\":681,\\\"../lib\\\":703,d3:157}],840:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\").mergeArray;e.exports=function(t,e){for(var r=0;r<t.length;r++)t[r].i=r;n(e.text,t,\\\"tx\\\"),n(e.hovertext,t,\\\"htx\\\");var i=e.marker;if(i){n(i.opacity,t,\\\"mo\\\"),n(i.color,t,\\\"mc\\\");var a=i.line;a&&(n(a.color,t,\\\"mlc\\\"),n(a.width,t,\\\"mlw\\\"))}}},{\\\"../../lib\\\":703}],841:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../scatter/attributes\\\"),i=t(\\\"../../components/fx/hovertemplate_attributes\\\"),a=t(\\\"../../components/colorscale/attributes\\\"),o=t(\\\"../../plots/font_attributes\\\"),s=t(\\\"./constants.js\\\"),l=t(\\\"../../lib/extend\\\").extendFlat,c=o({editType:\\\"calc\\\",arrayOk:!0,colorEditType:\\\"style\\\"}),u=l({},n.marker.line.width,{dflt:0}),f=l({width:u,editType:\\\"calc\\\"},a(\\\"marker.line\\\")),h=l({line:f,editType:\\\"calc\\\"},a(\\\"marker\\\"),{opacity:{valType:\\\"number\\\",arrayOk:!0,dflt:1,min:0,max:1,editType:\\\"style\\\"}});e.exports={x:n.x,x0:n.x0,dx:n.dx,y:n.y,y0:n.y0,dy:n.dy,text:n.text,hovertext:n.hovertext,hovertemplate:i({},{keys:s.eventDataKeys}),textposition:{valType:\\\"enumerated\\\",values:[\\\"inside\\\",\\\"outside\\\",\\\"auto\\\",\\\"none\\\"],dflt:\\\"none\\\",arrayOk:!0,editType:\\\"calc\\\"},insidetextanchor:{valType:\\\"enumerated\\\",values:[\\\"end\\\",\\\"middle\\\",\\\"start\\\"],dflt:\\\"end\\\",editType:\\\"plot\\\"},textangle:{valType:\\\"angle\\\",dflt:\\\"auto\\\",editType:\\\"plot\\\"},textfont:l({},c,{}),insidetextfont:l({},c,{}),outsidetextfont:l({},c,{}),constraintext:{valType:\\\"enumerated\\\",values:[\\\"inside\\\",\\\"outside\\\",\\\"both\\\",\\\"none\\\"],dflt:\\\"both\\\",editType:\\\"calc\\\"},cliponaxis:l({},n.cliponaxis,{}),orientation:{valType:\\\"enumerated\\\",values:[\\\"v\\\",\\\"h\\\"],editType:\\\"calc+clearAxisTypes\\\"},base:{valType:\\\"any\\\",dflt:null,arrayOk:!0,editType:\\\"calc\\\"},offset:{valType:\\\"number\\\",dflt:null,arrayOk:!0,editType:\\\"calc\\\"},width:{valType:\\\"number\\\",dflt:null,min:0,arrayOk:!0,editType:\\\"calc\\\"},marker:h,offsetgroup:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"calc\\\"},alignmentgroup:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"calc\\\"},selected:{marker:{opacity:n.selected.marker.opacity,color:n.selected.marker.color,editType:\\\"style\\\"},textfont:n.selected.textfont,editType:\\\"style\\\"},unselected:{marker:{opacity:n.unselected.marker.opacity,color:n.unselected.marker.color,editType:\\\"style\\\"},textfont:n.unselected.textfont,editType:\\\"style\\\"},r:n.r,t:n.t,_deprecated:{bardir:{valType:\\\"enumerated\\\",editType:\\\"calc\\\",values:[\\\"v\\\",\\\"h\\\"]}}}},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plots/font_attributes\\\":777,\\\"../scatter/attributes\\\":1075,\\\"./constants.js\\\":843}],842:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/axes\\\"),i=t(\\\"../../components/colorscale/helpers\\\").hasColorscale,a=t(\\\"../../components/colorscale/calc\\\"),o=t(\\\"./arrays_to_calcdata\\\"),s=t(\\\"../scatter/calc_selection\\\");e.exports=function(t,e){var r,l,c=n.getFromId(t,e.xaxis||\\\"x\\\"),u=n.getFromId(t,e.yaxis||\\\"y\\\");\\\"h\\\"===e.orientation?(r=c.makeCalcdata(e,\\\"x\\\"),l=u.makeCalcdata(e,\\\"y\\\")):(r=u.makeCalcdata(e,\\\"y\\\"),l=c.makeCalcdata(e,\\\"x\\\"));for(var f=Math.min(l.length,r.length),h=new Array(f),p=0;p<f;p++)h[p]={p:l[p],s:r[p]},e.ids&&(h[p].id=String(e.ids[p]));return i(e,\\\"marker\\\")&&a(t,e,{vals:e.marker.color,containerStr:\\\"marker\\\",cLetter:\\\"c\\\"}),i(e,\\\"marker.line\\\")&&a(t,e,{vals:e.marker.line.color,containerStr:\\\"marker.line\\\",cLetter:\\\"c\\\"}),o(h,e),s(h,e),h}},{\\\"../../components/colorscale/calc\\\":588,\\\"../../components/colorscale/helpers\\\":591,\\\"../../plots/cartesian/axes\\\":751,\\\"../scatter/calc_selection\\\":1077,\\\"./arrays_to_calcdata\\\":840}],843:[function(t,e,r){\\\"use strict\\\";e.exports={eventDataKeys:[]}},{}],844:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../lib\\\").isArrayOrTypedArray,a=t(\\\"../../constants/numerical\\\").BADNUM,o=t(\\\"../../registry\\\"),s=t(\\\"../../plots/cartesian/axes\\\"),l=t(\\\"../../plots/cartesian/axis_ids\\\").getAxisGroup,c=t(\\\"./sieve.js\\\");function u(t,e,r,o,u){if(o.length){var b,_,w,k;switch(function(t,e){var r,a;for(r=0;r<e.length;r++){var o,s=e[r],l=s[0].trace,c=\\\"funnel\\\"===l.type?l._base:l.base,u=\\\"h\\\"===l.orientation?l.xcalendar:l.ycalendar,f=\\\"category\\\"===t.type||\\\"multicategory\\\"===t.type?function(){return null}:t.d2c;if(i(c)){for(a=0;a<Math.min(c.length,s.length);a++)o=f(c[a],0,u),n(o)?(s[a].b=+o,s[a].hasB=1):s[a].b=0;for(;a<s.length;a++)s[a].b=0}else{o=f(c,0,u);var h=n(o);for(o=h?o:0,a=0;a<s.length;a++)s[a].b=o,h&&(s[a].hasB=1)}}}(r,o),u.mode){case\\\"overlay\\\":f(e,r,o,u);break;case\\\"group\\\":for(b=[],_=[],w=0;w<o.length;w++)void 0===(k=o[w])[0].trace.offset?_.push(k):b.push(k);_.length&&function(t,e,r,n,i){var o=new c(n,{sepNegVal:!1,overlapNoMerge:!i.norm});(function(t,e,r,n){for(var i=t._fullLayout,a=r.positions,o=r.distinctPositions,s=r.minDiff,c=r.traces,u=c.length,f=a.length!==o.length,h=s*(1-n.gap),v=l(i,e._id)+c[0][0].trace.orientation,m=i._alignmentOpts[v]||{},y=0;y<u;y++){var x,b,_=c[y],w=_[0].trace,k=m[w.alignmentgroup]||{},T=Object.keys(k.offsetGroups||{}).length,A=(x=T?h/T:f?h/u:h)*(1-(n.groupgap||0));b=T?((2*w._offsetIndex+1-T)*x-A)/2:f?((2*y+1-u)*x-A)/2:-A/2;var M=_[0].t;M.barwidth=A,M.poffset=b,M.bargroupwidth=h,M.bardelta=s}r.binWidth=c[0][0].t.barwidth/100,p(r),d(e,r),g(e,r,f)})(t,e,o,i),function(t){for(var e=t.traces,r=0;r<e.length;r++){var n=e[r],i=n[0].trace;if(void 0===i.base)for(var o=new c([n],{sepNegVal:!0,overlapNoMerge:!0}),s=0;s<n.length;s++){var l=n[s];if(l.p!==a){var u=o.put(l.p,l.b+l.s);u&&(l.b=u)}}}}(o),i.norm?(m(o),y(r,o,i)):v(r,o)}(t,e,r,_,u),b.length&&f(e,r,b,u);break;case\\\"stack\\\":case\\\"relative\\\":for(b=[],_=[],w=0;w<o.length;w++)void 0===(k=o[w])[0].trace.base?_.push(k):b.push(k);_.length&&function(t,e,r,n,i){var o=new c(n,{sepNegVal:\\\"relative\\\"===i.mode,overlapNoMerge:!(i.norm||\\\"stack\\\"===i.mode||\\\"relative\\\"===i.mode)});h(e,o,i),function(t,e,r){var n,i,o,l,c,u,f=x(t),h=e.traces;for(l=0;l<h.length;l++)if(n=h[l],\\\"funnel\\\"===(i=n[0].trace).type)for(c=0;c<n.length;c++)(u=n[c]).s!==a&&e.put(u.p,-.5*u.s);for(l=0;l<h.length;l++){n=h[l],i=n[0].trace,o=\\\"funnel\\\"===i.type;var p=[];for(c=0;c<n.length;c++)if((u=n[c]).s!==a){var d;d=o?u.s:u.s+u.b;var g=e.put(u.p,d),v=g+d;u.b=g,u[f]=v,r.norm||(p.push(v),u.hasB&&p.push(g))}r.norm||(i._extremes[t._id]=s.findExtremes(t,p,{tozero:!0,padded:!0}))}}(r,o,i);for(var l=0;l<n.length;l++)for(var u=n[l],f=0;f<u.length;f++){var p=u[f];if(p.s!==a){var d=p.b+p.s===o.get(p.p,p.s);d&&(p._outmost=!0)}}i.norm&&y(r,o,i)}(0,e,r,_,u),b.length&&f(e,r,b,u)}!function(t,e){var r,i,a,o=x(e),s={},l=1/0,c=-1/0;for(r=0;r<t.length;r++)for(a=t[r],i=0;i<a.length;i++){var u=a[i].p;n(u)&&(l=Math.min(l,u),c=Math.max(c,u))}var f=1e4/(c-l),h=s.round=function(t){return String(Math.round(f*(t-l)))};for(r=0;r<t.length;r++){(a=t[r])[0].t.extents=s;var p=a[0].t.poffset,d=Array.isArray(p);for(i=0;i<a.length;i++){var g=a[i],v=g[o]-g.w/2;if(n(v)){var m=g[o]+g.w/2,y=h(g.p);s[y]?s[y]=[Math.min(v,s[y][0]),Math.max(m,s[y][1])]:s[y]=[v,m]}g.p0=g.p+(d?p[i]:p),g.p1=g.p0+g.w,g.s0=g.b,g.s1=g.s0+g.s}}}(o,e)}}function f(t,e,r,n){for(var i=0;i<r.length;i++){var a=r[i],o=new c([a],{sepNegVal:!1,overlapNoMerge:!n.norm});h(t,o,n),n.norm?(m(o),y(e,o,n)):v(e,o)}}function h(t,e,r){for(var n=e.minDiff,i=e.traces,a=n*(1-r.gap),o=a*(1-(r.groupgap||0)),s=-o/2,l=0;l<i.length;l++){var c=i[l][0].t;c.barwidth=o,c.poffset=s,c.bargroupwidth=a,c.bardelta=n}e.binWidth=i[0][0].t.barwidth/100,p(e),d(t,e),g(t,e)}function p(t){var e,r,a=t.traces;for(e=0;e<a.length;e++){var o,s=a[e],l=s[0],c=l.trace,u=l.t,f=c._offset||c.offset,h=u.poffset;if(i(f)){for(o=Array.prototype.slice.call(f,0,s.length),r=0;r<o.length;r++)n(o[r])||(o[r]=h);for(r=o.length;r<s.length;r++)o.push(h);u.poffset=o}else void 0!==f&&(u.poffset=f);var p=c._width||c.width,d=u.barwidth;if(i(p)){var g=Array.prototype.slice.call(p,0,s.length);for(r=0;r<g.length;r++)n(g[r])||(g[r]=d);for(r=g.length;r<s.length;r++)g.push(d);if(u.barwidth=g,void 0===f){for(o=[],r=0;r<s.length;r++)o.push(h+(d-g[r])/2);u.poffset=o}}else void 0!==p&&(u.barwidth=p,void 0===f&&(u.poffset=h+(d-p)/2))}}function d(t,e){for(var r=e.traces,n=x(t),i=0;i<r.length;i++)for(var a=r[i],o=a[0].t,s=o.poffset,l=Array.isArray(s),c=o.barwidth,u=Array.isArray(c),f=0;f<a.length;f++){var h=a[f],p=h.w=u?c[f]:c;h[n]=h.p+(l?s[f]:s)+p/2}}function g(t,e,r){var n=e.traces,i=e.minDiff/2;s.minDtick(t,e.minDiff,e.distinctPositions[0],r);for(var a=0;a<n.length;a++){var o,l,c,u,f=n[a],h=f[0],p=h.trace,d=[];for(u=0;u<f.length;u++)l=(o=f[u]).p-i,c=o.p+i,d.push(l,c);if(p.width||p.offset){var g=h.t,v=g.poffset,m=g.barwidth,y=Array.isArray(v),x=Array.isArray(m);for(u=0;u<f.length;u++){o=f[u];var b=y?v[u]:v,_=x?m[u]:m;c=(l=o.p+b)+_,d.push(l,c)}}p._extremes[t._id]=s.findExtremes(t,d,{padded:!1})}}function v(t,e){for(var r=e.traces,n=x(t),i=0;i<r.length;i++){for(var a=r[i],o=a[0].trace,l=[],c=!0,u=0;u<a.length;u++){var f=a[u],h=f.b,p=h+f.s;f[n]=p,l.push(p),f.hasB&&l.push(h),f.hasB&&f.b>0&&f.s>0||(c=!1)}o._extremes[t._id]=s.findExtremes(t,l,{tozero:!c,padded:!0})}}function m(t){for(var e=t.traces,r=0;r<e.length;r++)for(var n=e[r],i=0;i<n.length;i++){var o=n[i];o.s!==a&&t.put(o.p,o.b+o.s)}}function y(t,e,r){var i=e.traces,o=x(t),l=\\\"fraction\\\"===r.norm?1:100,c=l/1e9,u=t.l2c(t.c2l(0)),f=\\\"stack\\\"===r.mode?l:u;function h(e){return n(t.c2l(e))&&(e<u-c||e>f+c||!n(u))}for(var p=0;p<i.length;p++){for(var d=i[p],g=d[0].trace,v=[],m=!0,y=!1,b=0;b<d.length;b++){var _=d[b];if(_.s!==a){var w=Math.abs(l/e.get(_.p,_.s));_.b*=w,_.s*=w;var k=_.b,T=k+_.s;_[o]=T,v.push(T),y=y||h(T),_.hasB&&(v.push(k),y=y||h(k)),_.hasB&&_.b>0&&_.s>0||(m=!1)}}g._extremes[t._id]=s.findExtremes(t,v,{tozero:!m,padded:y})}}function x(t){return t._id.charAt(0)}e.exports={crossTraceCalc:function(t,e){for(var r=e.xaxis,n=e.yaxis,i=t._fullLayout,a=t._fullData,s=t.calcdata,l=[],c=[],f=0;f<a.length;f++){var h=a[f];!0===h.visible&&o.traceIs(h,\\\"bar\\\")&&h.xaxis===r._id&&h.yaxis===n._id&&(\\\"h\\\"===h.orientation?l.push(s[f]):c.push(s[f]))}var p={mode:i.barmode,norm:i.barnorm,gap:i.bargap,groupgap:i.bargroupgap};u(t,r,n,c,p),u(t,n,r,l,p)},setGroupPositions:u}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"../../plots/cartesian/axis_ids\\\":754,\\\"../../registry\\\":831,\\\"./sieve.js\\\":853,\\\"fast-isnumeric\\\":224}],845:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../components/color\\\"),a=t(\\\"../../registry\\\"),o=t(\\\"../scatter/xy_defaults\\\"),s=t(\\\"./style_defaults\\\"),l=t(\\\"../../plots/cartesian/axis_ids\\\").getAxisGroup,c=t(\\\"./attributes\\\"),u=n.coerceFont;function f(t,e,r,n){var i=e.orientation,a=e[{v:\\\"x\\\",h:\\\"y\\\"}[i]+\\\"axis\\\"],o=l(r,a)+i,s=r._alignmentOpts||{},c=n(\\\"alignmentgroup\\\"),u=s[o];u||(u=s[o]={});var f=u[c];f?f.traces.push(e):f=u[c]={traces:[e],alignmentIndex:Object.keys(u).length,offsetGroups:{}};var h=n(\\\"offsetgroup\\\"),p=f.offsetGroups,d=p[h];h&&(d||(d=p[h]={offsetIndex:Object.keys(p).length}),e._offsetIndex=d.offsetIndex)}function h(t,e,r,i,a,o){var s=!(!1===(o=o||{}).moduleHasSelected),l=!(!1===o.moduleHasUnselected),c=!(!1===o.moduleHasConstrain),f=!(!1===o.moduleHasCliponaxis),h=!(!1===o.moduleHasTextangle),p=!(!1===o.moduleHasInsideanchor),d=Array.isArray(a)||\\\"auto\\\"===a,g=d||\\\"inside\\\"===a,v=d||\\\"outside\\\"===a;if(g||v){var m=u(i,\\\"textfont\\\",r.font),y=n.extendFlat({},m);!(t.textfont&&t.textfont.color)&&delete y.color,u(i,\\\"insidetextfont\\\",y),v&&u(i,\\\"outsidetextfont\\\",m),s&&i(\\\"selected.textfont.color\\\"),l&&i(\\\"unselected.textfont.color\\\"),c&&i(\\\"constraintext\\\"),f&&i(\\\"cliponaxis\\\"),h&&i(\\\"textangle\\\")}g&&p&&i(\\\"insidetextanchor\\\")}e.exports={supplyDefaults:function(t,e,r,l){function u(r,i){return n.coerce(t,e,c,r,i)}if(o(t,e,l,u)){u(\\\"orientation\\\",e.x&&!e.y?\\\"h\\\":\\\"v\\\"),u(\\\"base\\\"),u(\\\"offset\\\"),u(\\\"width\\\"),u(\\\"text\\\"),u(\\\"hovertext\\\"),u(\\\"hovertemplate\\\");var f=u(\\\"textposition\\\");h(t,0,l,u,f,{moduleHasSelected:!0,moduleHasUnselected:!0,moduleHasConstrain:!0,moduleHasCliponaxis:!0,moduleHasTextangle:!0,moduleHasInsideanchor:!0}),s(t,e,u,r,l);var p=(e.marker.line||{}).color,d=a.getComponentMethod(\\\"errorbars\\\",\\\"supplyDefaults\\\");d(t,e,p||i.defaultLine,{axis:\\\"y\\\"}),d(t,e,p||i.defaultLine,{axis:\\\"x\\\",inherit:\\\"y\\\"}),n.coerceSelectionMarkerOpacity(e,u)}else e.visible=!1},crossTraceDefaults:function(t,e){var r;function i(t){return n.coerce(r._input,r,c,t)}if(\\\"group\\\"===e.barmode)for(var a=0;a<t.length;a++)\\\"bar\\\"===(r=t[a]).type&&(r._input,f(0,r,e,i))},handleGroupingDefaults:f,handleText:h}},{\\\"../../components/color\\\":580,\\\"../../lib\\\":703,\\\"../../plots/cartesian/axis_ids\\\":754,\\\"../../registry\\\":831,\\\"../scatter/xy_defaults\\\":1100,\\\"./attributes\\\":841,\\\"./style_defaults\\\":855}],846:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"tinycolor2\\\");r.coerceString=function(t,e,r){if(\\\"string\\\"==typeof e){if(e||!t.noBlank)return e}else if((\\\"number\\\"==typeof e||!0===e)&&!t.strict)return String(e);return void 0!==r?r:t.dflt},r.coerceNumber=function(t,e,r){if(n(e)){e=+e;var i=t.min,a=t.max;if(!(void 0!==i&&e<i||void 0!==a&&e>a))return e}return void 0!==r?r:t.dflt},r.coerceColor=function(t,e,r){return i(e).isValid()?e:void 0!==r?r:t.dflt},r.coerceEnumerated=function(t,e,r){return t.coerceNumber&&(e=+e),-1!==t.values.indexOf(e)?e:void 0!==r?r:t.dflt},r.getValue=function(t,e){var r;return Array.isArray(t)?e<t.length&&(r=t[e]):r=t,r}},{\\\"fast-isnumeric\\\":224,tinycolor2:524}],847:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/fx\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"../../components/color\\\"),o=t(\\\"../../lib\\\").fillText;function s(t,e,r,i){var a,s,l,c,u,f,h,p=t.cd,d=p[0].trace,g=p[0].t,v=\\\"closest\\\"===i,m=\\\"waterfall\\\"===d.type,y=t.maxHoverDistance,x=t.maxSpikeDistance;function b(t){return t[l]-t.w/2}function _(t){return t[l]+t.w/2}var w=v?b:function(t){return Math.min(b(t),t.p-g.bardelta/2)},k=v?_:function(t){return Math.max(_(t),t.p+g.bardelta/2)};function T(t,e){return n.inbox(t-a,e-a,y+Math.min(1,Math.abs(e-t)/h)-1)}function A(t){return T(w(t),k(t))}function M(t){var e=s,r=t.b,i=t[c];return m&&(i+=Math.abs(t.rawS||0)),n.inbox(r-e,i-e,y+(i-e)/(i-r)-1)}\\\"h\\\"===d.orientation?(a=r,s=e,l=\\\"y\\\",c=\\\"x\\\",u=M,f=A):(a=e,s=r,l=\\\"x\\\",c=\\\"y\\\",f=M,u=A);var S=t[l+\\\"a\\\"],E=t[c+\\\"a\\\"];h=Math.abs(S.r2c(S.range[1])-S.r2c(S.range[0]));var C=n.getDistanceFunction(i,u,f,function(t){return(u(t)+f(t))/2});if(n.getClosest(p,C,t),!1!==t.index){v||(w=function(t){return Math.min(b(t),t.p-g.bargroupwidth/2)},k=function(t){return Math.max(_(t),t.p+g.bargroupwidth/2)});var L=p[t.index],z=d.base?L.b+L.s:L.s;t[c+\\\"0\\\"]=t[c+\\\"1\\\"]=E.c2p(L[c],!0),t[c+\\\"LabelVal\\\"]=z;var O=g.extents[g.extents.round(L.p)];return t[l+\\\"0\\\"]=S.c2p(v?w(L):O[0],!0),t[l+\\\"1\\\"]=S.c2p(v?k(L):O[1],!0),t[l+\\\"LabelVal\\\"]=L.p,t.spikeDistance=(M(L)+function(t){return T(b(t),_(t))}(L))/2+x-y,t[l+\\\"Spike\\\"]=S.c2p(L.p,!0),o(L,d,t),t.hovertemplate=d.hovertemplate,t}}function l(t,e){var r=e.mcc||t.marker.color,n=e.mlcc||t.marker.line.color,i=e.mlw||t.marker.line.width;return a.opacity(r)?r:a.opacity(n)&&i?n:void 0}e.exports={hoverPoints:function(t,e,r,n){var a=s(t,e,r,n);if(a){var o=a.cd,c=o[0].trace,u=o[a.index];return a.color=l(c,u),i.getComponentMethod(\\\"errorbars\\\",\\\"hoverInfo\\\")(u,c,a),[a]}},hoverOnBars:s,getTraceColor:l}},{\\\"../../components/color\\\":580,\\\"../../components/fx\\\":619,\\\"../../lib\\\":703,\\\"../../registry\\\":831}],848:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),layoutAttributes:t(\\\"./layout_attributes\\\"),supplyDefaults:t(\\\"./defaults\\\").supplyDefaults,crossTraceDefaults:t(\\\"./defaults\\\").crossTraceDefaults,supplyLayoutDefaults:t(\\\"./layout_defaults\\\"),calc:t(\\\"./calc\\\"),crossTraceCalc:t(\\\"./cross_trace_calc\\\").crossTraceCalc,colorbar:t(\\\"../scatter/marker_colorbar\\\"),arraysToCalcdata:t(\\\"./arrays_to_calcdata\\\"),plot:t(\\\"./plot\\\").plot,style:t(\\\"./style\\\").style,styleOnSelect:t(\\\"./style\\\").styleOnSelect,hoverPoints:t(\\\"./hover\\\").hoverPoints,selectPoints:t(\\\"./select\\\"),moduleType:\\\"trace\\\",name:\\\"bar\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"bar-like\\\",\\\"cartesian\\\",\\\"svg\\\",\\\"bar\\\",\\\"oriented\\\",\\\"errorBarsOK\\\",\\\"showLegend\\\",\\\"zoomScale\\\"],meta:{}}},{\\\"../../plots/cartesian\\\":762,\\\"../scatter/marker_colorbar\\\":1092,\\\"./arrays_to_calcdata\\\":840,\\\"./attributes\\\":841,\\\"./calc\\\":842,\\\"./cross_trace_calc\\\":844,\\\"./defaults\\\":845,\\\"./hover\\\":847,\\\"./layout_attributes\\\":849,\\\"./layout_defaults\\\":850,\\\"./plot\\\":851,\\\"./select\\\":852,\\\"./style\\\":854}],849:[function(t,e,r){\\\"use strict\\\";e.exports={barmode:{valType:\\\"enumerated\\\",values:[\\\"stack\\\",\\\"group\\\",\\\"overlay\\\",\\\"relative\\\"],dflt:\\\"group\\\",editType:\\\"calc\\\"},barnorm:{valType:\\\"enumerated\\\",values:[\\\"\\\",\\\"fraction\\\",\\\"percent\\\"],dflt:\\\"\\\",editType:\\\"calc\\\"},bargap:{valType:\\\"number\\\",min:0,max:1,editType:\\\"calc\\\"},bargroupgap:{valType:\\\"number\\\",min:0,max:1,dflt:0,editType:\\\"calc\\\"}}},{}],850:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../plots/cartesian/axes\\\"),a=t(\\\"../../lib\\\"),o=t(\\\"./layout_attributes\\\");e.exports=function(t,e,r){function s(r,n){return a.coerce(t,e,o,r,n)}for(var l=!1,c=!1,u=!1,f={},h=s(\\\"barmode\\\"),p=0;p<r.length;p++){var d=r[p];if(n.traceIs(d,\\\"bar\\\")&&d.visible){if(l=!0,\\\"group\\\"===h){var g=d.xaxis+d.yaxis;f[g]&&(u=!0),f[g]=!0}if(d.visible&&\\\"histogram\\\"===d.type)\\\"category\\\"!==i.getFromId({_fullLayout:e},d[\\\"v\\\"===d.orientation?\\\"xaxis\\\":\\\"yaxis\\\"]).type&&(c=!0)}}l?(\\\"overlay\\\"!==h&&s(\\\"barnorm\\\"),s(\\\"bargap\\\",c&&!u?0:.2),s(\\\"bargroupgap\\\")):delete e.barmode}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"../../registry\\\":831,\\\"./layout_attributes\\\":849}],851:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"fast-isnumeric\\\"),a=t(\\\"../../lib\\\"),o=t(\\\"../../lib/svg_text_utils\\\"),s=t(\\\"../../components/color\\\"),l=t(\\\"../../components/drawing\\\"),c=t(\\\"../../registry\\\"),u=t(\\\"../../plots/cartesian/axes\\\").tickText,f=t(\\\"./style\\\"),h=t(\\\"./helpers\\\"),p=t(\\\"./attributes\\\"),d=p.text,g=p.textposition,v=3;function m(t,e){return t<e?1:-1}function y(t){return\\\"auto\\\"===t?0:t}function x(t,e,r,n,i,a){var o=!!a.isHorizontal,s=!!a.constrained,l=a.angle||0,c=a.anchor||0,u=i.width,f=i.height,h=Math.abs(e-t),p=Math.abs(n-r),d=h>2*v&&p>2*v?v:0;h-=2*d,p-=2*d;var g=!1;if(!(\\\"auto\\\"===l)||u<=h&&f<=p||!(u>h||f>p)||(u>p||f>h)&&u<f==h<p||(g=!0),g){var x=p;p=h,h=x}var b=y(l),w=Math.abs(Math.sin(Math.PI/180*b)),k=Math.abs(Math.cos(Math.PI/180*b)),T=Math.max(h*k,p*w),A=Math.max(h*w,p*k),M=s?Math.min(T/u,A/f):Math.max(k,w);M=Math.min(1,M);var S=(t+e)/2,E=(r+n)/2;\\\"middle\\\"!==c&&(d+=.5*(M*(o!==g?f:u)*w+M*(o!==g?u:f)*k),o?(d*=m(t,e),S=\\\"start\\\"===c?t+d:e-d):(d*=m(r,n),E=\\\"start\\\"===c?r+d:n-d));return g&&(b+=90),_((i.left+i.right)/2,(i.top+i.bottom)/2,S,E,M,b)}function b(t,e,r,n,i,a){var o,s=!!a.isHorizontal,l=!!a.constrained,c=a.angle||0,u=i.width,f=i.height,h=Math.abs(e-t),p=Math.abs(n-r);o=s?p>2*v?v:0:h>2*v?v:0;var d=1;l&&(d=s?Math.min(1,p/f):Math.min(1,h/u));var g=y(c);o+=.5*(d*(s?f:u)*Math.abs(Math.sin(Math.PI/180*g))+d*(s?u:f)*Math.abs(Math.cos(Math.PI/180*g)));var x=(t+e)/2,b=(r+n)/2;return s?x=e-o*m(e,t):b=n+o*m(r,n),_((i.left+i.right)/2,(i.top+i.bottom)/2,x,b,d,g)}function _(t,e,r,n,i,a){var o;return i<1?o=\\\"scale(\\\"+i+\\\") \\\":(i=1,o=\\\"\\\"),\\\"translate(\\\"+(r-i*t)+\\\" \\\"+(n-i*e)+\\\")\\\"+o+(a?\\\"rotate(\\\"+a+\\\" \\\"+t+\\\" \\\"+e+\\\") \\\":\\\"\\\")}e.exports={plot:function(t,e,r,p,y){var _=e.xaxis,w=e.yaxis,k=t._fullLayout;y||(y={mode:k.barmode,norm:k.barmode,gap:k.bargap,groupgap:k.bargroupgap});var T=a.makeTraceGroups(p,r,\\\"trace bars\\\").each(function(r){var c=n.select(this),p=r[0].trace,k=\\\"waterfall\\\"===p.type,T=\\\"funnel\\\"===p.type,A=\\\"bar\\\"===p.type||T,M=0;k&&p.connector.visible&&\\\"between\\\"===p.connector.mode&&(M=p.connector.line.width/2);var S=\\\"h\\\"===p.orientation;e.isRangePlot||(r[0].node3=c);var E=a.ensureSingle(c,\\\"g\\\",\\\"points\\\").selectAll(\\\"g.point\\\").data(a.identity);E.enter().append(\\\"g\\\").classed(\\\"point\\\",!0),E.exit().remove(),E.each(function(c,k){var T,E,C=n.select(this),L=function(t,e,r,n){var i=[],a=[],o=n?e:r,s=n?r:e;return i[0]=o.c2p(t.s0,!0),a[0]=s.c2p(t.p0,!0),i[1]=o.c2p(t.s1,!0),a[1]=s.c2p(t.p1,!0),n?[i,a]:[a,i]}(c,_,w,S),z=L[0][0],O=L[0][1],I=L[1][0],D=L[1][1],P=c.isBlank=!(i(z)&&i(O)&&i(I)&&i(D)&&(z!==O||A&&S)&&(I!==D||A&&!S));if(M&&(S?(z-=m(z,O)*M,O+=m(z,O)*M):(I-=m(I,D)*M,D+=m(I,D)*M)),\\\"waterfall\\\"===p.type){if(!P){var R=p[c.dir].marker;T=R.line.width,E=R.color}}else T=(c.mlw+1||p.marker.line.width+1||(c.trace?c.trace.marker.line.width:0)+1)-1,E=c.mc||p.marker.color;var F=n.round(T/2%1,2);function B(t){return 0===y.gap&&0===y.groupgap?n.round(Math.round(t)-F,2):t}if(!t._context.staticPlot){var N=s.opacity(E)<1||T>.01?B:function(t,e){return Math.abs(t-e)>=2?B(t):t>e?Math.ceil(t):Math.floor(t)};z=N(z,O),O=N(O,z),I=N(I,D),D=N(D,I)}a.ensureSingle(C,\\\"path\\\").style(\\\"vector-effect\\\",\\\"non-scaling-stroke\\\").attr(\\\"d\\\",P?\\\"M0,0Z\\\":\\\"M\\\"+z+\\\",\\\"+I+\\\"V\\\"+D+\\\"H\\\"+O+\\\"V\\\"+I+\\\"Z\\\").call(l.setClipUrl,e.layerClipId,t),function(t,e,r,n,i,s,c,p,m,y){var _,w=e.xaxis,k=e.yaxis,T=t._fullLayout;function A(e,r,n){var i=a.ensureSingle(e,\\\"text\\\").text(r).attr({class:\\\"bartext bartext-\\\"+_,transform:\\\"\\\",\\\"text-anchor\\\":\\\"middle\\\",\\\"data-notex\\\":1}).call(l.font,n).call(o.convertToTspans,t);return i}var M=n[0].trace,S=\\\"h\\\"===M.orientation,E=function(t,e,r,n){var i,o=t[0].trace;return i=o.textinfo?function(t,e,r,n){var i=t[0].trace,o=\\\"h\\\"===i.orientation,s=\\\"waterfall\\\"===i.type,l=\\\"funnel\\\"===i.type;function c(t){var e=o?r:n;return u(e,+t,!0).text}var f,h,p=i.textinfo,d=t[e],g=p.split(\\\"+\\\"),v=[],m=function(t){return-1!==g.indexOf(t)};if(m(\\\"label\\\")&&v.push((h=t[e].p,u(o?n:r,h,!0).text)),m(\\\"text\\\")&&(0===(f=a.castOption(i,d.i,\\\"text\\\"))||f)&&v.push(f),s){var y=+d.rawS||d.s,x=d.v,b=x-y;m(\\\"initial\\\")&&v.push(c(b)),m(\\\"delta\\\")&&v.push(c(y)),m(\\\"final\\\")&&v.push(c(x))}if(l){m(\\\"value\\\")&&v.push(c(d.s));var _=0;m(\\\"percent initial\\\")&&_++,m(\\\"percent previous\\\")&&_++,m(\\\"percent total\\\")&&_++;var w=_>1;m(\\\"percent initial\\\")&&(f=a.formatPercent(d.begR),w&&(f+=\\\" of initial\\\"),v.push(f)),m(\\\"percent previous\\\")&&(f=a.formatPercent(d.difR),w&&(f+=\\\" of previous\\\"),v.push(f)),m(\\\"percent total\\\")&&(f=a.formatPercent(d.sumR),w&&(f+=\\\" of total\\\"),v.push(f))}return v.join(\\\"<br>\\\")}(t,e,r,n):h.getValue(o.text,e),h.coerceString(d,i)}(n,i,w,k);_=function(t,e){var r=h.getValue(t.textposition,e);return h.coerceEnumerated(g,r)}(M,i);var C=\\\"stack\\\"===y.mode||\\\"relative\\\"===y.mode,L=n[i],z=!C||L._outmost;if(E&&\\\"none\\\"!==_&&(!L.isBlank&&s!==c&&p!==m||\\\"auto\\\"!==_&&\\\"inside\\\"!==_)){var O=T.font,I=f.getBarColor(n[i],M),D=f.getInsideTextFont(M,i,O,I),P=f.getOutsideTextFont(M,i,O),R=r.datum();S?\\\"log\\\"===w.type&&R.s0<=0&&(s=w.range[0]<w.range[1]?0:w._length):\\\"log\\\"===k.type&&R.s0<=0&&(p=k.range[0]<k.range[1]?k._length:0);var F,B,N,j,V,U,H=Math.abs(c-s)-2*v,q=Math.abs(m-p)-2*v;if(\\\"outside\\\"===_&&(z||L.hasB||(_=\\\"inside\\\")),\\\"auto\\\"===_)if(z){_=\\\"inside\\\",F=A(r,E,D),B=l.bBox(F.node()),N=B.width,j=B.height;var G=N>0&&j>0,Y=N<=H&&j<=q,W=N<=q&&j<=H,X=S?H>=N*(q/j):q>=j*(H/N);G&&(Y||W||X)?_=\\\"inside\\\":(_=\\\"outside\\\",F.remove(),F=null)}else _=\\\"inside\\\";!F&&(F=A(r,E,\\\"outside\\\"===_?P:D),B=l.bBox(F.node()),N=B.width,j=B.height,N<=0||j<=0)?F.remove():(\\\"outside\\\"===_?(U=\\\"both\\\"===M.constraintext||\\\"outside\\\"===M.constraintext,V=b(s,c,p,m,B,{isHorizontal:S,constrained:U,angle:M.textangle})):(U=\\\"both\\\"===M.constraintext||\\\"inside\\\"===M.constraintext,V=x(s,c,p,m,B,{isHorizontal:S,constrained:U,angle:M.textangle,anchor:M.insidetextanchor})),F.attr(\\\"transform\\\",V))}else r.select(\\\"text\\\").remove()}(t,e,C,r,k,z,O,I,D,y),e.layerClipId&&l.hideOutsideRangePoint(c,C.select(\\\"text\\\"),_,w,p.xcalendar,p.ycalendar)});var C=!1===p.cliponaxis;l.setClipUrl(c,C?null:e.layerClipId,t)});c.getComponentMethod(\\\"errorbars\\\",\\\"plot\\\")(t,T,e)},getTransformToMoveInsideBar:x,getTransformToMoveOutsideBar:b}},{\\\"../../components/color\\\":580,\\\"../../components/drawing\\\":601,\\\"../../lib\\\":703,\\\"../../lib/svg_text_utils\\\":727,\\\"../../plots/cartesian/axes\\\":751,\\\"../../registry\\\":831,\\\"./attributes\\\":841,\\\"./helpers\\\":846,\\\"./style\\\":854,d3:157,\\\"fast-isnumeric\\\":224}],852:[function(t,e,r){\\\"use strict\\\";function n(t,e,r,n,i){var a=e.c2p(n?t.s0:t.p0,!0),o=e.c2p(n?t.s1:t.p1,!0),s=r.c2p(n?t.p0:t.s0,!0),l=r.c2p(n?t.p1:t.s1,!0);return i?[(a+o)/2,(s+l)/2]:n?[o,(s+l)/2]:[(a+o)/2,l]}e.exports=function(t,e){var r,i=t.cd,a=t.xaxis,o=t.yaxis,s=i[0].trace,l=\\\"funnel\\\"===s.type,c=\\\"h\\\"===s.orientation,u=[];if(!1===e)for(r=0;r<i.length;r++)i[r].selected=0;else for(r=0;r<i.length;r++){var f=i[r],h=\\\"ct\\\"in f?f.ct:n(f,a,o,c,l);e.contains(h,!1,r,t)?(u.push({pointNumber:r,x:a.c2d(f.x),y:o.c2d(f.y)}),f.selected=1):f.selected=0}return u}},{}],853:[function(t,e,r){\\\"use strict\\\";e.exports=a;var n=t(\\\"../../lib\\\").distinctVals,i=t(\\\"../../constants/numerical\\\").BADNUM;function a(t,e){this.traces=t,this.sepNegVal=e.sepNegVal,this.overlapNoMerge=e.overlapNoMerge;for(var r=1/0,a=[],o=0;o<t.length;o++){for(var s=t[o],l=0;l<s.length;l++){var c=s[l];c.p!==i&&a.push(c.p)}s[0]&&s[0].width1&&(r=Math.min(s[0].width1,r))}this.positions=a;var u=n(a);this.distinctPositions=u.vals,1===u.vals.length&&r!==1/0?this.minDiff=r:this.minDiff=Math.min(u.minDiff,r),this.binWidth=this.minDiff,this.bins={}}a.prototype.put=function(t,e){var r=this.getLabel(t,e),n=this.bins[r]||0;return this.bins[r]=n+e,n},a.prototype.get=function(t,e){var r=this.getLabel(t,e);return this.bins[r]||0},a.prototype.getLabel=function(t,e){return(e<0&&this.sepNegVal?\\\"v\\\":\\\"^\\\")+(this.overlapNoMerge?t:Math.round(t/this.binWidth))}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703}],854:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../components/color\\\"),a=t(\\\"../../components/drawing\\\"),o=t(\\\"../../lib\\\"),s=t(\\\"../../registry\\\"),l=t(\\\"./attributes\\\"),c=l.textfont,u=l.insidetextfont,f=l.outsidetextfont,h=t(\\\"./helpers\\\");function p(t,e,r){a.pointStyle(t.selectAll(\\\"path\\\"),e,r),d(t,e,r)}function d(t,e,r){t.selectAll(\\\"text\\\").each(function(t){var i=n.select(this),o=g(i,t,e,r);a.font(i,o)})}function g(t,e,r,n){var i=n._fullLayout.font,a=r.textfont;if(t.classed(\\\"bartext-inside\\\")){var o=b(e,r);a=m(r,e.i,i,o)}else t.classed(\\\"bartext-outside\\\")&&(a=y(r,e.i,i));return a}function v(t,e,r){return x(c,t.textfont,e,r)}function m(t,e,r,n){var a=v(t,e,r);return(void 0===t._input.textfont||void 0===t._input.textfont.color||Array.isArray(t.textfont.color)&&void 0===t.textfont.color[e])&&(a={color:i.contrast(n),family:a.family,size:a.size}),x(u,t.insidetextfont,e,a)}function y(t,e,r){var n=v(t,e,r);return x(f,t.outsidetextfont,e,n)}function x(t,e,r,n){e=e||{};var i=h.getValue(e.family,r),a=h.getValue(e.size,r),o=h.getValue(e.color,r);return{family:h.coerceString(t.family,i,n.family),size:h.coerceNumber(t.size,a,n.size),color:h.coerceColor(t.color,o,n.color)}}function b(t,e){return\\\"waterfall\\\"===e.type?e[t.dir].marker.color:t.mc||e.marker.color}e.exports={style:function(t,e){var r=e?e[0].node3:n.select(t).selectAll(\\\"g.barlayer\\\").selectAll(\\\"g.trace\\\"),i=r.size(),a=t._fullLayout;r.style(\\\"opacity\\\",function(t){return t[0].trace.opacity}).each(function(t){(\\\"stack\\\"===a.barmode&&i>1||0===a.bargap&&0===a.bargroupgap&&!t[0].trace.marker.line.width)&&n.select(this).attr(\\\"shape-rendering\\\",\\\"crispEdges\\\")}),r.selectAll(\\\"g.points\\\").each(function(e){p(n.select(this),e[0].trace,t)}),s.getComponentMethod(\\\"errorbars\\\",\\\"style\\\")(r)},styleTextPoints:d,styleOnSelect:function(t,e){var r=e[0].node3,i=e[0].trace;i.selectedpoints?function(t,e,r){a.selectedPointStyle(t.selectAll(\\\"path\\\"),e),function(t,e,r){t.each(function(t){var i,s=n.select(this);if(t.selected){i=o.extendFlat({},g(s,t,e,r));var l=e.selected.textfont&&e.selected.textfont.color;l&&(i.color=l),a.font(s,i)}else a.selectedTextStyle(s,e)})}(t.selectAll(\\\"text\\\"),e,r)}(r,i,t):(p(r,i,t),s.getComponentMethod(\\\"errorbars\\\",\\\"style\\\")(r))},getInsideTextFont:m,getOutsideTextFont:y,getBarColor:b}},{\\\"../../components/color\\\":580,\\\"../../components/drawing\\\":601,\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"./attributes\\\":841,\\\"./helpers\\\":846,d3:157}],855:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/color\\\"),i=t(\\\"../../components/colorscale/helpers\\\").hasColorscale,a=t(\\\"../../components/colorscale/defaults\\\");e.exports=function(t,e,r,o,s){r(\\\"marker.color\\\",o),i(t,\\\"marker\\\")&&a(t,e,s,r,{prefix:\\\"marker.\\\",cLetter:\\\"c\\\"}),r(\\\"marker.line.color\\\",n.defaultLine),i(t,\\\"marker.line\\\")&&a(t,e,s,r,{prefix:\\\"marker.line.\\\",cLetter:\\\"c\\\"}),r(\\\"marker.line.width\\\"),r(\\\"marker.opacity\\\"),r(\\\"selected.marker.color\\\"),r(\\\"unselected.marker.color\\\")}},{\\\"../../components/color\\\":580,\\\"../../components/colorscale/defaults\\\":590,\\\"../../components/colorscale/helpers\\\":591}],856:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/fx/hovertemplate_attributes\\\"),i=t(\\\"../../lib/extend\\\").extendFlat,a=t(\\\"../scatterpolar/attributes\\\"),o=t(\\\"../bar/attributes\\\");e.exports={r:a.r,theta:a.theta,r0:a.r0,dr:a.dr,theta0:a.theta0,dtheta:a.dtheta,thetaunit:a.thetaunit,base:i({},o.base,{}),offset:i({},o.offset,{}),width:i({},o.width,{}),text:i({},o.text,{}),hovertext:i({},o.hovertext,{}),marker:o.marker,hoverinfo:a.hoverinfo,hovertemplate:n(),selected:o.selected,unselected:o.unselected}},{\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../bar/attributes\\\":841,\\\"../scatterpolar/attributes\\\":1136}],857:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale/helpers\\\").hasColorscale,i=t(\\\"../../components/colorscale/calc\\\"),a=t(\\\"../bar/arrays_to_calcdata\\\"),o=t(\\\"../bar/cross_trace_calc\\\").setGroupPositions,s=t(\\\"../scatter/calc_selection\\\"),l=t(\\\"../../registry\\\").traceIs,c=t(\\\"../../lib\\\").extendFlat;e.exports={calc:function(t,e){for(var r=t._fullLayout,o=e.subplot,l=r[o].radialaxis,c=r[o].angularaxis,u=l.makeCalcdata(e,\\\"r\\\"),f=c.makeCalcdata(e,\\\"theta\\\"),h=e._length,p=new Array(h),d=u,g=f,v=0;v<h;v++)p[v]={p:g[v],s:d[v]};function m(t){var r=e[t];void 0!==r&&(e[\\\"_\\\"+t]=Array.isArray(r)?c.makeCalcdata(e,t):c.d2c(r,e.thetaunit))}return\\\"linear\\\"===c.type&&(m(\\\"width\\\"),m(\\\"offset\\\")),n(e,\\\"marker\\\")&&i(t,e,{vals:e.marker.color,containerStr:\\\"marker\\\",cLetter:\\\"c\\\"}),n(e,\\\"marker.line\\\")&&i(t,e,{vals:e.marker.line.color,containerStr:\\\"marker.line\\\",cLetter:\\\"c\\\"}),a(p,e),s(p,e),p},crossTraceCalc:function(t,e,r){for(var n=t.calcdata,i=[],a=0;a<n.length;a++){var s=n[a],u=s[0].trace;!0===u.visible&&l(u,\\\"bar\\\")&&u.subplot===r&&i.push(s)}var f=c({},e.radialaxis,{_id:\\\"x\\\"}),h=e.angularaxis;o(t,h,f,i,{mode:e.barmode,norm:e.barnorm,gap:e.bargap,groupgap:e.bargroupgap})}}},{\\\"../../components/colorscale/calc\\\":588,\\\"../../components/colorscale/helpers\\\":591,\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"../bar/arrays_to_calcdata\\\":840,\\\"../bar/cross_trace_calc\\\":844,\\\"../scatter/calc_selection\\\":1077}],858:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../scatterpolar/defaults\\\").handleRThetaDefaults,a=t(\\\"../bar/style_defaults\\\"),o=t(\\\"./attributes\\\");e.exports=function(t,e,r,s){function l(r,i){return n.coerce(t,e,o,r,i)}i(t,e,s,l)?(l(\\\"thetaunit\\\"),l(\\\"base\\\"),l(\\\"offset\\\"),l(\\\"width\\\"),l(\\\"text\\\"),l(\\\"hovertext\\\"),l(\\\"hovertemplate\\\"),a(t,e,l,r,s),n.coerceSelectionMarkerOpacity(e,l)):e.visible=!1}},{\\\"../../lib\\\":703,\\\"../bar/style_defaults\\\":855,\\\"../scatterpolar/defaults\\\":1138,\\\"./attributes\\\":856}],859:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/fx\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../bar/hover\\\").getTraceColor,o=i.fillText,s=t(\\\"../scatterpolar/hover\\\").makeHoverPointText,l=t(\\\"../../plots/polar/helpers\\\").isPtInsidePolygon;e.exports=function(t,e,r){var c=t.cd,u=c[0].trace,f=t.subplot,h=f.radialAxis,p=f.angularAxis,d=f.vangles,g=d?l:i.isPtInsideSector,v=t.maxHoverDistance,m=p._period||2*Math.PI,y=Math.abs(h.g2p(Math.sqrt(e*e+r*r))),x=Math.atan2(r,e);h.range[0]>h.range[1]&&(x+=Math.PI);if(n.getClosest(c,function(t){return g(y,x,[t.rp0,t.rp1],[t.thetag0,t.thetag1],d)?v+Math.min(1,Math.abs(t.thetag1-t.thetag0)/m)-1+(t.rp1-y)/(t.rp1-t.rp0)-1:1/0},t),!1!==t.index){var b=c[t.index];t.x0=t.x1=b.ct[0],t.y0=t.y1=b.ct[1];var _=i.extendFlat({},b,{r:b.s,theta:b.p});return o(b,u,t),s(_,u,f,t),t.hovertemplate=u.hovertemplate,t.color=a(u,b),t.xLabelVal=t.yLabelVal=void 0,b.s<0&&(t.idealAlign=\\\"left\\\"),[t]}}},{\\\"../../components/fx\\\":619,\\\"../../lib\\\":703,\\\"../../plots/polar/helpers\\\":814,\\\"../bar/hover\\\":847,\\\"../scatterpolar/hover\\\":1139}],860:[function(t,e,r){\\\"use strict\\\";e.exports={moduleType:\\\"trace\\\",name:\\\"barpolar\\\",basePlotModule:t(\\\"../../plots/polar\\\"),categories:[\\\"polar\\\",\\\"bar\\\",\\\"showLegend\\\"],attributes:t(\\\"./attributes\\\"),layoutAttributes:t(\\\"./layout_attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),supplyLayoutDefaults:t(\\\"./layout_defaults\\\"),calc:t(\\\"./calc\\\").calc,crossTraceCalc:t(\\\"./calc\\\").crossTraceCalc,plot:t(\\\"./plot\\\"),colorbar:t(\\\"../scatter/marker_colorbar\\\"),style:t(\\\"../bar/style\\\").style,hoverPoints:t(\\\"./hover\\\"),selectPoints:t(\\\"../bar/select\\\"),meta:{}}},{\\\"../../plots/polar\\\":815,\\\"../bar/select\\\":852,\\\"../bar/style\\\":854,\\\"../scatter/marker_colorbar\\\":1092,\\\"./attributes\\\":856,\\\"./calc\\\":857,\\\"./defaults\\\":858,\\\"./hover\\\":859,\\\"./layout_attributes\\\":861,\\\"./layout_defaults\\\":862,\\\"./plot\\\":863}],861:[function(t,e,r){\\\"use strict\\\";e.exports={barmode:{valType:\\\"enumerated\\\",values:[\\\"stack\\\",\\\"overlay\\\"],dflt:\\\"stack\\\",editType:\\\"calc\\\"},bargap:{valType:\\\"number\\\",dflt:.1,min:0,max:1,editType:\\\"calc\\\"}}},{}],862:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./layout_attributes\\\");e.exports=function(t,e,r){var a,o={};function s(r,o){return n.coerce(t[a]||{},e[a],i,r,o)}for(var l=0;l<r.length;l++){var c=r[l];\\\"barpolar\\\"===c.type&&!0===c.visible&&(o[a=c.subplot]||(s(\\\"barmode\\\"),s(\\\"bargap\\\"),o[a]=1))}}},{\\\"../../lib\\\":703,\\\"./layout_attributes\\\":861}],863:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"fast-isnumeric\\\"),a=t(\\\"../../lib\\\"),o=t(\\\"../../components/drawing\\\"),s=t(\\\"../../plots/polar/helpers\\\");e.exports=function(t,e,r){var l=e.xaxis,c=e.yaxis,u=e.radialAxis,f=e.angularAxis,h=function(t){var e=t.cxx,r=t.cyy;if(t.vangles)return function(n,i,o,l){var c,u;a.angleDelta(o,l)>0?(c=o,u=l):(c=l,u=o);var f=s.findEnclosingVertexAngles(c,t.vangles)[0],h=s.findEnclosingVertexAngles(u,t.vangles)[1],p=[f,(c+u)/2,h];return s.pathPolygonAnnulus(n,i,c,u,p,e,r)};return function(t,n,i,o){return a.pathAnnulus(t,n,i,o,e,r)}}(e),p=e.layers.frontplot.select(\\\"g.barlayer\\\");a.makeTraceGroups(p,r,\\\"trace bars\\\").each(function(r){var s=r[0].node3=n.select(this),p=a.ensureSingle(s,\\\"g\\\",\\\"points\\\").selectAll(\\\"g.point\\\").data(a.identity);p.enter().append(\\\"g\\\").style(\\\"vector-effect\\\",\\\"non-scaling-stroke\\\").style(\\\"stroke-miterlimit\\\",2).classed(\\\"point\\\",!0),p.exit().remove(),p.each(function(t){var e,r=n.select(this),o=t.rp0=u.c2p(t.s0),s=t.rp1=u.c2p(t.s1),p=t.thetag0=f.c2g(t.p0),d=t.thetag1=f.c2g(t.p1);if(i(o)&&i(s)&&i(p)&&i(d)&&o!==s&&p!==d){var g=u.c2g(t.s1),v=(p+d)/2;t.ct=[l.c2p(g*Math.cos(v)),c.c2p(g*Math.sin(v))],e=h(o,s,p,d)}else e=\\\"M0,0Z\\\";a.ensureSingle(r,\\\"path\\\").attr(\\\"d\\\",e)}),o.setClipUrl(s,e._hasClipOnAxisFalse?e.clipIds.forTraces:null,t)})}},{\\\"../../components/drawing\\\":601,\\\"../../lib\\\":703,\\\"../../plots/polar/helpers\\\":814,d3:157,\\\"fast-isnumeric\\\":224}],864:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../scatter/attributes\\\"),i=t(\\\"../bar/attributes\\\"),a=t(\\\"../../components/color/attributes\\\"),o=t(\\\"../../components/fx/hovertemplate_attributes\\\"),s=t(\\\"../../lib/extend\\\").extendFlat,l=n.marker,c=l.line;e.exports={y:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},x:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},x0:{valType:\\\"any\\\",editType:\\\"calc+clearAxisTypes\\\"},y0:{valType:\\\"any\\\",editType:\\\"calc+clearAxisTypes\\\"},name:{valType:\\\"string\\\",editType:\\\"calc+clearAxisTypes\\\"},text:s({},n.text,{}),hovertext:s({},n.hovertext,{}),hovertemplate:o({}),whiskerwidth:{valType:\\\"number\\\",min:0,max:1,dflt:.5,editType:\\\"calc\\\"},notched:{valType:\\\"boolean\\\",editType:\\\"calc\\\"},notchwidth:{valType:\\\"number\\\",min:0,max:.5,dflt:.25,editType:\\\"calc\\\"},boxpoints:{valType:\\\"enumerated\\\",values:[\\\"all\\\",\\\"outliers\\\",\\\"suspectedoutliers\\\",!1],dflt:\\\"outliers\\\",editType:\\\"calc\\\"},boxmean:{valType:\\\"enumerated\\\",values:[!0,\\\"sd\\\",!1],dflt:!1,editType:\\\"calc\\\"},jitter:{valType:\\\"number\\\",min:0,max:1,editType:\\\"calc\\\"},pointpos:{valType:\\\"number\\\",min:-2,max:2,editType:\\\"calc\\\"},orientation:{valType:\\\"enumerated\\\",values:[\\\"v\\\",\\\"h\\\"],editType:\\\"calc+clearAxisTypes\\\"},width:{valType:\\\"number\\\",min:0,dflt:0,editType:\\\"calc\\\"},marker:{outliercolor:{valType:\\\"color\\\",dflt:\\\"rgba(0, 0, 0, 0)\\\",editType:\\\"style\\\"},symbol:s({},l.symbol,{arrayOk:!1,editType:\\\"plot\\\"}),opacity:s({},l.opacity,{arrayOk:!1,dflt:1,editType:\\\"style\\\"}),size:s({},l.size,{arrayOk:!1,editType:\\\"calc\\\"}),color:s({},l.color,{arrayOk:!1,editType:\\\"style\\\"}),line:{color:s({},c.color,{arrayOk:!1,dflt:a.defaultLine,editType:\\\"style\\\"}),width:s({},c.width,{arrayOk:!1,dflt:0,editType:\\\"style\\\"}),outliercolor:{valType:\\\"color\\\",editType:\\\"style\\\"},outlierwidth:{valType:\\\"number\\\",min:0,dflt:1,editType:\\\"style\\\"},editType:\\\"style\\\"},editType:\\\"plot\\\"},line:{color:{valType:\\\"color\\\",editType:\\\"style\\\"},width:{valType:\\\"number\\\",min:0,dflt:2,editType:\\\"style\\\"},editType:\\\"plot\\\"},fillcolor:n.fillcolor,offsetgroup:i.offsetgroup,alignmentgroup:i.alignmentgroup,selected:{marker:n.selected.marker,editType:\\\"style\\\"},unselected:{marker:n.unselected.marker,editType:\\\"style\\\"},hoveron:{valType:\\\"flaglist\\\",flags:[\\\"boxes\\\",\\\"points\\\"],dflt:\\\"boxes+points\\\",editType:\\\"style\\\"}}},{\\\"../../components/color/attributes\\\":579,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../bar/attributes\\\":841,\\\"../scatter/attributes\\\":1075}],865:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../lib\\\"),a=i._,o=t(\\\"../../plots/cartesian/axes\\\");function s(t,e,r){var n={text:\\\"tx\\\",hovertext:\\\"htx\\\"};for(var i in n)Array.isArray(e[i])&&(t[n[i]]=e[i][r])}function l(t,e){return t.v-e.v}function c(t){return t.v}e.exports=function(t,e){var r,u,f,h,p,d=t._fullLayout,g=o.getFromId(t,e.xaxis||\\\"x\\\"),v=o.getFromId(t,e.yaxis||\\\"y\\\"),m=[],y=\\\"violin\\\"===e.type?\\\"_numViolins\\\":\\\"_numBoxes\\\";\\\"h\\\"===e.orientation?(u=g,f=\\\"x\\\",h=v,p=\\\"y\\\"):(u=v,f=\\\"y\\\",h=g,p=\\\"x\\\");var x,b=u.makeCalcdata(e,f),_=function(t,e,r,a,o){if(e in t)return r.makeCalcdata(t,e);var s;s=e+\\\"0\\\"in t?t[e+\\\"0\\\"]:\\\"name\\\"in t&&(\\\"category\\\"===r.type||n(t.name)&&-1!==[\\\"linear\\\",\\\"log\\\"].indexOf(r.type)||i.isDateTime(t.name)&&\\\"date\\\"===r.type)?t.name:o;var l=\\\"multicategory\\\"===r.type?r.r2c_just_indices(s):r.d2c(s,0,t[e+\\\"calendar\\\"]);return a.map(function(){return l})}(e,p,h,b,d[y]),w=i.distinctVals(_),k=w.vals,T=w.minDiff/2,A=function(t,e){for(var r=t.length,n=new Array(r+1),i=0;i<r;i++)n[i]=t[i]-e;return n[r]=t[r-1]+e,n}(k,T),M=k.length,S=function(t){for(var e=new Array(t),r=0;r<t;r++)e[r]=[];return e}(M);for(r=0;r<e._length;r++){var E=b[r];if(n(E)){var C=i.findBin(_[r],A);if(C>=0&&C<M){var L={v:E,i:r};s(L,e,r),S[C].push(L)}}}var z=\\\"all\\\"===(e.boxpoints||e.points)?i.identity:function(t){return t.v<x.lf||t.v>x.uf};for(r=0;r<M;r++)if(S[r].length>0){var O=S[r].sort(l),I=O.map(c),D=I.length;(x={}).pos=k[r],x.pts=O,x[p]=x.pos,x[f]=x.pts.map(function(t){return t.v}),x.min=I[0],x.max=I[D-1],x.mean=i.mean(I,D),x.sd=i.stdev(I,D,x.mean),x.q1=i.interp(I,.25),x.med=i.interp(I,.5),x.q3=i.interp(I,.75),x.lf=Math.min(x.q1,I[Math.min(i.findBin(2.5*x.q1-1.5*x.q3,I,!0)+1,D-1)]),x.uf=Math.max(x.q3,I[Math.max(i.findBin(2.5*x.q3-1.5*x.q1,I),0)]),x.lo=4*x.q1-3*x.q3,x.uo=4*x.q3-3*x.q1;var P=1.57*(x.q3-x.q1)/Math.sqrt(D);x.ln=x.med-P,x.un=x.med+P,x.pts2=O.filter(z),m.push(x)}!function(t,e){if(i.isArrayOrTypedArray(e.selectedpoints))for(var r=0;r<t.length;r++){for(var n=t[r].pts||[],a={},o=0;o<n.length;o++)a[n[o].i]=o;i.tagSelected(n,e,a)}}(m,e);var R=o.findExtremes(u,b,{padded:!0});return e._extremes[u._id]=R,m.length>0?(m[0].t={num:d[y],dPos:T,posLetter:p,valLetter:f,labels:{med:a(t,\\\"median:\\\"),min:a(t,\\\"min:\\\"),q1:a(t,\\\"q1:\\\"),q3:a(t,\\\"q3:\\\"),max:a(t,\\\"max:\\\"),mean:\\\"sd\\\"===e.boxmean?a(t,\\\"mean \\\\xb1 \\\\u03c3:\\\"):a(t,\\\"mean:\\\"),lf:a(t,\\\"lower fence:\\\"),uf:a(t,\\\"upper fence:\\\")}},d[y]++,m):[{t:{empty:!0}}]}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"fast-isnumeric\\\":224}],866:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/axes\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../plots/cartesian/axis_ids\\\").getAxisGroup,o=[\\\"v\\\",\\\"h\\\"];function s(t,e,r,o){var s,l,c,u=e.calcdata,f=e._fullLayout,h=o._id,p=h.charAt(0),d=[],g=0;for(s=0;s<r.length;s++)for(c=u[r[s]],l=0;l<c.length;l++)d.push(c[l].pos),g+=(c[l].pts2||[]).length;if(d.length){var v=i.distinctVals(d),m=v.minDiff/2;n.minDtick(o,v.minDiff,v.vals[0],!0);var y=f[\\\"violin\\\"===t?\\\"_numViolins\\\":\\\"_numBoxes\\\"],x=\\\"group\\\"===f[t+\\\"mode\\\"]&&y>1,b=1-f[t+\\\"gap\\\"],_=1-f[t+\\\"groupgap\\\"];for(s=0;s<r.length;s++){var w,k,T,A,M,S,E=(c=u[r[s]])[0].trace,C=c[0].t,L=E.width,z=E.side;if(L)w=k=A=L/2,T=0;else if(w=m,x){var O=a(f,o._id)+E.orientation,I=(f._alignmentOpts[O]||{})[E.alignmentgroup]||{},D=Object.keys(I.offsetGroups||{}).length,P=D||y;k=w*b*_/P,T=2*w*(((D?E._offsetIndex:C.num)+.5)/P-.5)*b,A=w*b/P}else k=w*b*_,T=0,A=w;C.dPos=w,C.bPos=T,C.bdPos=k,C.wHover=A;var R,F,B,N,j,V,U=T+k,H=Boolean(L);if(\\\"positive\\\"===z?(M=w*(L?1:.5),R=U,S=R=T):\\\"negative\\\"===z?(M=R=T,S=w*(L?1:.5),F=U):(M=S=w,R=F=U),(E.boxpoints||E.points)&&g>0){var q=E.pointpos,G=E.jitter,Y=E.marker.size/2,W=0;q+G>=0&&((W=U*(q+G))>M?(H=!0,j=Y,B=W):W>R&&(j=Y,B=M)),W<=M&&(B=M);var X=0;q-G<=0&&((X=-U*(q-G))>S?(H=!0,V=Y,N=X):X>F&&(V=Y,N=S)),X<=S&&(N=S)}else B=M,N=S;var Z=new Array(c.length);for(l=0;l<c.length;l++)Z[l]=c[l].pos;E._extremes[h]=n.findExtremes(o,Z,{padded:H,vpadminus:N,vpadplus:B,ppadminus:{x:V,y:j}[p],ppadplus:{x:j,y:V}[p]})}}}e.exports={crossTraceCalc:function(t,e){for(var r=t.calcdata,n=e.xaxis,i=e.yaxis,a=0;a<o.length;a++){for(var l=o[a],c=\\\"h\\\"===l?i:n,u=[],f=0;f<r.length;f++){var h=r[f],p=h[0].t,d=h[0].trace;!0!==d.visible||\\\"box\\\"!==d.type&&\\\"candlestick\\\"!==d.type||p.empty||(d.orientation||\\\"v\\\")!==l||d.xaxis!==n._id||d.yaxis!==i._id||u.push(f)}s(\\\"box\\\",t,u,c)}},setPositionOffset:s}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"../../plots/cartesian/axis_ids\\\":754}],867:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"../../components/color\\\"),o=t(\\\"../bar/defaults\\\").handleGroupingDefaults,s=t(\\\"./attributes\\\");function l(t,e,r,a){var o,s,l=r(\\\"y\\\"),c=r(\\\"x\\\"),u=c&&c.length;if(l&&l.length)o=\\\"v\\\",u?s=Math.min(n.minRowLength(c),n.minRowLength(l)):(r(\\\"x0\\\"),s=n.minRowLength(l));else{if(!u)return void(e.visible=!1);o=\\\"h\\\",r(\\\"y0\\\"),s=n.minRowLength(c)}e._length=s,i.getComponentMethod(\\\"calendars\\\",\\\"handleTraceDefaults\\\")(t,e,[\\\"x\\\",\\\"y\\\"],a),r(\\\"orientation\\\",o)}function c(t,e,r,i){var a=i.prefix,o=n.coerce2(t,e,s,\\\"marker.outliercolor\\\"),l=r(\\\"marker.line.outliercolor\\\"),c=r(a+\\\"points\\\",o||l?\\\"suspectedoutliers\\\":void 0);c?(r(\\\"jitter\\\",\\\"all\\\"===c?.3:0),r(\\\"pointpos\\\",\\\"all\\\"===c?-1.5:0),r(\\\"marker.symbol\\\"),r(\\\"marker.opacity\\\"),r(\\\"marker.size\\\"),r(\\\"marker.color\\\",e.line.color),r(\\\"marker.line.color\\\"),r(\\\"marker.line.width\\\"),\\\"suspectedoutliers\\\"===c&&(r(\\\"marker.line.outliercolor\\\",e.marker.color),r(\\\"marker.line.outlierwidth\\\")),r(\\\"selected.marker.color\\\"),r(\\\"unselected.marker.color\\\"),r(\\\"selected.marker.size\\\"),r(\\\"unselected.marker.size\\\"),r(\\\"text\\\"),r(\\\"hovertext\\\")):delete e.marker;var u=r(\\\"hoveron\\\");\\\"all\\\"!==u&&-1===u.indexOf(\\\"points\\\")||r(\\\"hovertemplate\\\"),n.coerceSelectionMarkerOpacity(e,r)}e.exports={supplyDefaults:function(t,e,r,i){function o(r,i){return n.coerce(t,e,s,r,i)}l(t,e,o,i),!1!==e.visible&&(o(\\\"line.color\\\",(t.marker||{}).color||r),o(\\\"line.width\\\"),o(\\\"fillcolor\\\",a.addOpacity(e.line.color,.5)),o(\\\"whiskerwidth\\\"),o(\\\"boxmean\\\"),o(\\\"width\\\"),o(\\\"notched\\\",void 0!==t.notchwidth)&&o(\\\"notchwidth\\\"),c(t,e,o,{prefix:\\\"box\\\"}))},crossTraceDefaults:function(t,e){var r,i;function a(t){return n.coerce(i._input,i,s,t)}for(var l=0;l<t.length;l++){var c=(i=t[l]).type;\\\"box\\\"!==c&&\\\"violin\\\"!==c||(r=i._input,\\\"group\\\"===e[c+\\\"mode\\\"]&&o(r,i,e,a))}},handleSampleDefaults:l,handlePointsDefaults:c}},{\\\"../../components/color\\\":580,\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"../bar/defaults\\\":845,\\\"./attributes\\\":864}],868:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){return e.hoverOnBox&&(t.hoverOnBox=e.hoverOnBox),\\\"xVal\\\"in e&&(t.x=e.xVal),\\\"yVal\\\"in e&&(t.y=e.yVal),e.xa&&(t.xaxis=e.xa),e.ya&&(t.yaxis=e.ya),t}},{}],869:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/axes\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../components/fx\\\"),o=t(\\\"../../components/color\\\"),s=i.fillText;function l(t,e,r,s){var l,c,u,f,h,p,d,g,v,m,y,x,b,_,w=t.cd,k=t.xa,T=t.ya,A=w[0].trace,M=w[0].t,S=\\\"violin\\\"===A.type,E=[],C=M.bdPos,L=M.wHover,z=function(t){return t.pos+M.bPos-p};S&&\\\"both\\\"!==A.side?(\\\"positive\\\"===A.side&&(v=function(t){var e=z(t);return a.inbox(e,e+L,m)},x=C,b=0),\\\"negative\\\"===A.side&&(v=function(t){var e=z(t);return a.inbox(e-L,e,m)},x=0,b=C)):(v=function(t){var e=z(t);return a.inbox(e-L,e+L,m)},x=b=C),_=S?function(t){return a.inbox(t.span[0]-h,t.span[1]-h,m)}:function(t){return a.inbox(t.min-h,t.max-h,m)},\\\"h\\\"===A.orientation?(h=e,p=r,d=_,g=v,l=\\\"y\\\",u=T,c=\\\"x\\\",f=k):(h=r,p=e,d=v,g=_,l=\\\"x\\\",u=k,c=\\\"y\\\",f=T);var O=Math.min(1,C/Math.abs(u.r2c(u.range[1])-u.r2c(u.range[0])));function I(t){return(d(t)+g(t))/2}m=t.maxHoverDistance-O,y=t.maxSpikeDistance-O;var D=a.getDistanceFunction(s,d,g,I);if(a.getClosest(w,D,t),!1===t.index)return[];var P=w[t.index],R=A.line.color,F=(A.marker||{}).color;o.opacity(R)&&A.line.width?t.color=R:o.opacity(F)&&A.boxpoints?t.color=F:t.color=A.fillcolor,t[l+\\\"0\\\"]=u.c2p(P.pos+M.bPos-b,!0),t[l+\\\"1\\\"]=u.c2p(P.pos+M.bPos+x,!0),t[l+\\\"LabelVal\\\"]=P.pos;var B=l+\\\"Spike\\\";t.spikeDistance=I(P)*y/m,t[B]=u.c2p(P.pos,!0);var N={},j=[\\\"med\\\",\\\"min\\\",\\\"q1\\\",\\\"q3\\\",\\\"max\\\"];(A.boxmean||(A.meanline||{}).visible)&&j.push(\\\"mean\\\"),(A.boxpoints||A.points)&&j.push(\\\"lf\\\",\\\"uf\\\");for(var V=0;V<j.length;V++){var U=j[V];if(U in P&&!(P[U]in N)){N[P[U]]=!0;var H=P[U],q=f.c2p(H,!0),G=i.extendFlat({},t);G[c+\\\"0\\\"]=G[c+\\\"1\\\"]=q,G[c+\\\"LabelVal\\\"]=H,G[c+\\\"Label\\\"]=(M.labels?M.labels[U]+\\\" \\\":\\\"\\\")+n.hoverLabelText(f,H),G.hoverOnBox=!0,\\\"mean\\\"===U&&\\\"sd\\\"in P&&\\\"sd\\\"===A.boxmean&&(G[c+\\\"err\\\"]=P.sd),t.name=\\\"\\\",t.spikeDistance=void 0,t[B]=void 0,G.hovertemplate=!1,E.push(G)}}return E}function c(t,e,r){for(var n,o,l,c=t.cd,u=t.xa,f=t.ya,h=c[0].trace,p=u.c2p(e),d=f.c2p(r),g=a.quadrature(function(t){var e=Math.max(3,t.mrc||0);return Math.max(Math.abs(u.c2p(t.x)-p)-e,1-3/e)},function(t){var e=Math.max(3,t.mrc||0);return Math.max(Math.abs(f.c2p(t.y)-d)-e,1-3/e)}),v=!1,m=0;m<c.length;m++){o=c[m];for(var y=0;y<(o.pts||[]).length;y++){var x=g(l=o.pts[y]);x<=t.distance&&(t.distance=x,v=[m,y])}}if(!v)return!1;l=(o=c[v[0]]).pts[v[1]];var b,_=u.c2p(l.x,!0),w=f.c2p(l.y,!0),k=l.mrc||1;return n=i.extendFlat({},t,{index:l.i,color:(h.marker||{}).color,name:h.name,x0:_-k,x1:_+k,y0:w-k,y1:w+k,spikeDistance:t.distance,hovertemplate:h.hovertemplate}),\\\"h\\\"===h.orientation?(b=f,n.xLabelVal=l.x,n.yLabelVal=o.pos):(b=u,n.xLabelVal=o.pos,n.yLabelVal=l.y),n[b._id.charAt(0)+\\\"Spike\\\"]=b.c2p(o.pos,!0),s(l,h,n),n}e.exports={hoverPoints:function(t,e,r,n){var i,a=t.cd[0].trace.hoveron,o=[];return-1!==a.indexOf(\\\"boxes\\\")&&(o=o.concat(l(t,e,r,n))),-1!==a.indexOf(\\\"points\\\")&&(i=c(t,e,r)),\\\"closest\\\"===n?i?[i]:o:i?(o.push(i),o):o},hoverOnBoxes:l,hoverOnPoints:c}},{\\\"../../components/color\\\":580,\\\"../../components/fx\\\":619,\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751}],870:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),layoutAttributes:t(\\\"./layout_attributes\\\"),supplyDefaults:t(\\\"./defaults\\\").supplyDefaults,crossTraceDefaults:t(\\\"./defaults\\\").crossTraceDefaults,supplyLayoutDefaults:t(\\\"./layout_defaults\\\").supplyLayoutDefaults,calc:t(\\\"./calc\\\"),crossTraceCalc:t(\\\"./cross_trace_calc\\\").crossTraceCalc,plot:t(\\\"./plot\\\").plot,style:t(\\\"./style\\\").style,styleOnSelect:t(\\\"./style\\\").styleOnSelect,hoverPoints:t(\\\"./hover\\\").hoverPoints,eventData:t(\\\"./event_data\\\"),selectPoints:t(\\\"./select\\\"),moduleType:\\\"trace\\\",name:\\\"box\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"cartesian\\\",\\\"svg\\\",\\\"symbols\\\",\\\"oriented\\\",\\\"box-violin\\\",\\\"showLegend\\\",\\\"boxLayout\\\",\\\"zoomScale\\\"],meta:{}}},{\\\"../../plots/cartesian\\\":762,\\\"./attributes\\\":864,\\\"./calc\\\":865,\\\"./cross_trace_calc\\\":866,\\\"./defaults\\\":867,\\\"./event_data\\\":868,\\\"./hover\\\":869,\\\"./layout_attributes\\\":871,\\\"./layout_defaults\\\":872,\\\"./plot\\\":873,\\\"./select\\\":874,\\\"./style\\\":875}],871:[function(t,e,r){\\\"use strict\\\";e.exports={boxmode:{valType:\\\"enumerated\\\",values:[\\\"group\\\",\\\"overlay\\\"],dflt:\\\"overlay\\\",editType:\\\"calc\\\"},boxgap:{valType:\\\"number\\\",min:0,max:1,dflt:.3,editType:\\\"calc\\\"},boxgroupgap:{valType:\\\"number\\\",min:0,max:1,dflt:.3,editType:\\\"calc\\\"}}},{}],872:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"./layout_attributes\\\");function o(t,e,r,i,a){for(var o=a+\\\"Layout\\\",s=!1,l=0;l<r.length;l++){var c=r[l];if(n.traceIs(c,o)){s=!0;break}}s&&(i(a+\\\"mode\\\"),i(a+\\\"gap\\\"),i(a+\\\"groupgap\\\"))}e.exports={supplyLayoutDefaults:function(t,e,r){o(0,0,r,function(r,n){return i.coerce(t,e,a,r,n)},\\\"box\\\")},_supply:o}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"./layout_attributes\\\":871}],873:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../components/drawing\\\"),o=5,s=.01;function l(t,e,r,a){var o,s,l=e.pos,c=e.val,u=a.bPos,f=a.wdPos||0,h=a.bPosPxOffset||0,p=r.whiskerwidth||0,d=r.notched||!1,g=d?1-2*r.notchwidth:1;Array.isArray(a.bdPos)?(o=a.bdPos[0],s=a.bdPos[1]):(o=a.bdPos,s=a.bdPos);var v=t.selectAll(\\\"path.box\\\").data(\\\"violin\\\"!==r.type||r.box.visible?i.identity:[]);v.enter().append(\\\"path\\\").style(\\\"vector-effect\\\",\\\"non-scaling-stroke\\\").attr(\\\"class\\\",\\\"box\\\"),v.exit().remove(),v.each(function(t){if(t.empty)return\\\"M0,0Z\\\";var e=t.pos,a=l.c2p(e+u,!0)+h,v=l.c2p(e+u-o,!0)+h,m=l.c2p(e+u+s,!0)+h,y=l.c2p(e+u-f,!0)+h,x=l.c2p(e+u+f,!0)+h,b=l.c2p(e+u-o*g,!0)+h,_=l.c2p(e+u+s*g,!0)+h,w=c.c2p(t.q1,!0),k=c.c2p(t.q3,!0),T=i.constrain(c.c2p(t.med,!0),Math.min(w,k)+1,Math.max(w,k)-1),A=void 0===t.lf||!1===r.boxpoints,M=c.c2p(A?t.min:t.lf,!0),S=c.c2p(A?t.max:t.uf,!0),E=c.c2p(t.ln,!0),C=c.c2p(t.un,!0);\\\"h\\\"===r.orientation?n.select(this).attr(\\\"d\\\",\\\"M\\\"+T+\\\",\\\"+b+\\\"V\\\"+_+\\\"M\\\"+w+\\\",\\\"+v+\\\"V\\\"+m+(d?\\\"H\\\"+E+\\\"L\\\"+T+\\\",\\\"+_+\\\"L\\\"+C+\\\",\\\"+m:\\\"\\\")+\\\"H\\\"+k+\\\"V\\\"+v+(d?\\\"H\\\"+C+\\\"L\\\"+T+\\\",\\\"+b+\\\"L\\\"+E+\\\",\\\"+v:\\\"\\\")+\\\"ZM\\\"+w+\\\",\\\"+a+\\\"H\\\"+M+\\\"M\\\"+k+\\\",\\\"+a+\\\"H\\\"+S+(0===p?\\\"\\\":\\\"M\\\"+M+\\\",\\\"+y+\\\"V\\\"+x+\\\"M\\\"+S+\\\",\\\"+y+\\\"V\\\"+x)):n.select(this).attr(\\\"d\\\",\\\"M\\\"+b+\\\",\\\"+T+\\\"H\\\"+_+\\\"M\\\"+v+\\\",\\\"+w+\\\"H\\\"+m+(d?\\\"V\\\"+E+\\\"L\\\"+_+\\\",\\\"+T+\\\"L\\\"+m+\\\",\\\"+C:\\\"\\\")+\\\"V\\\"+k+\\\"H\\\"+v+(d?\\\"V\\\"+C+\\\"L\\\"+b+\\\",\\\"+T+\\\"L\\\"+v+\\\",\\\"+E:\\\"\\\")+\\\"ZM\\\"+a+\\\",\\\"+w+\\\"V\\\"+M+\\\"M\\\"+a+\\\",\\\"+k+\\\"V\\\"+S+(0===p?\\\"\\\":\\\"M\\\"+y+\\\",\\\"+M+\\\"H\\\"+x+\\\"M\\\"+y+\\\",\\\"+S+\\\"H\\\"+x))})}function c(t,e,r,n){var l=e.x,c=e.y,u=n.bdPos,f=n.bPos,h=r.boxpoints||r.points;i.seedPseudoRandom();var p=t.selectAll(\\\"g.points\\\").data(h?function(t){return t.forEach(function(t){t.t=n,t.trace=r}),t}:[]);p.enter().append(\\\"g\\\").attr(\\\"class\\\",\\\"points\\\"),p.exit().remove();var d=p.selectAll(\\\"path\\\").data(function(t){var e,n,a=t.pts2,l=Math.max((t.max-t.min)/10,t.q3-t.q1),c=1e-9*l,p=l*s,d=[],g=0;if(r.jitter){if(0===l)for(g=1,d=new Array(a.length),e=0;e<a.length;e++)d[e]=1;else for(e=0;e<a.length;e++){var v=Math.max(0,e-o),m=a[v].v,y=Math.min(a.length-1,e+o),x=a[y].v;\\\"all\\\"!==h&&(a[e].v<t.lf?x=Math.min(x,t.lf):m=Math.max(m,t.uf));var b=Math.sqrt(p*(y-v)/(x-m+c))||0;b=i.constrain(Math.abs(b),0,1),d.push(b),g=Math.max(b,g)}n=2*r.jitter/(g||1)}for(e=0;e<a.length;e++){var _=a[e],w=_.v,k=r.jitter?n*d[e]*(i.pseudoRandom()-.5):0,T=t.pos+f+u*(r.pointpos+k);\\\"h\\\"===r.orientation?(_.y=T,_.x=w):(_.x=T,_.y=w),\\\"suspectedoutliers\\\"===h&&w<t.uo&&w>t.lo&&(_.so=!0)}return a});d.enter().append(\\\"path\\\").classed(\\\"point\\\",!0),d.exit().remove(),d.call(a.translatePoints,l,c)}function u(t,e,r,a){var o,s,l=e.pos,c=e.val,u=a.bPos,f=a.bPosPxOffset||0,h=r.boxmean||(r.meanline||{}).visible;Array.isArray(a.bdPos)?(o=a.bdPos[0],s=a.bdPos[1]):(o=a.bdPos,s=a.bdPos);var p=t.selectAll(\\\"path.mean\\\").data(\\\"box\\\"===r.type&&r.boxmean||\\\"violin\\\"===r.type&&r.box.visible&&r.meanline.visible?i.identity:[]);p.enter().append(\\\"path\\\").attr(\\\"class\\\",\\\"mean\\\").style({fill:\\\"none\\\",\\\"vector-effect\\\":\\\"non-scaling-stroke\\\"}),p.exit().remove(),p.each(function(t){var e=l.c2p(t.pos+u,!0)+f,i=l.c2p(t.pos+u-o,!0)+f,a=l.c2p(t.pos+u+s,!0)+f,p=c.c2p(t.mean,!0),d=c.c2p(t.mean-t.sd,!0),g=c.c2p(t.mean+t.sd,!0);\\\"h\\\"===r.orientation?n.select(this).attr(\\\"d\\\",\\\"M\\\"+p+\\\",\\\"+i+\\\"V\\\"+a+(\\\"sd\\\"===h?\\\"m0,0L\\\"+d+\\\",\\\"+e+\\\"L\\\"+p+\\\",\\\"+i+\\\"L\\\"+g+\\\",\\\"+e+\\\"Z\\\":\\\"\\\")):n.select(this).attr(\\\"d\\\",\\\"M\\\"+i+\\\",\\\"+p+\\\"H\\\"+a+(\\\"sd\\\"===h?\\\"m0,0L\\\"+e+\\\",\\\"+d+\\\"L\\\"+i+\\\",\\\"+p+\\\"L\\\"+e+\\\",\\\"+g+\\\"Z\\\":\\\"\\\"))})}e.exports={plot:function(t,e,r,a){var o=e.xaxis,s=e.yaxis;i.makeTraceGroups(a,r,\\\"trace boxes\\\").each(function(t){var r,i,a=n.select(this),f=t[0],h=f.t,p=f.trace;e.isRangePlot||(f.node3=a),h.wdPos=h.bdPos*p.whiskerwidth,!0!==p.visible||h.empty?a.remove():(\\\"h\\\"===p.orientation?(r=s,i=o):(r=o,i=s),l(a,{pos:r,val:i},p,h),c(a,{x:o,y:s},p,h),u(a,{pos:r,val:i},p,h))})},plotBoxAndWhiskers:l,plotPoints:c,plotBoxMean:u}},{\\\"../../components/drawing\\\":601,\\\"../../lib\\\":703,d3:157}],874:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){var r,n,i=t.cd,a=t.xaxis,o=t.yaxis,s=[];if(!1===e)for(r=0;r<i.length;r++)for(n=0;n<(i[r].pts||[]).length;n++)i[r].pts[n].selected=0;else for(r=0;r<i.length;r++)for(n=0;n<(i[r].pts||[]).length;n++){var l=i[r].pts[n],c=a.c2p(l.x),u=o.c2p(l.y);e.contains([c,u],null,l.i,t)?(s.push({pointNumber:l.i,x:a.c2d(l.x),y:o.c2d(l.y)}),l.selected=1):l.selected=0}return s}},{}],875:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../components/color\\\"),a=t(\\\"../../components/drawing\\\");e.exports={style:function(t,e){var r=e?e[0].node3:n.select(t).selectAll(\\\"g.trace.boxes\\\");r.style(\\\"opacity\\\",function(t){return t[0].trace.opacity}),r.each(function(e){var r=n.select(this),o=e[0].trace,s=o.line.width;function l(t,e,r,n){t.style(\\\"stroke-width\\\",e+\\\"px\\\").call(i.stroke,r).call(i.fill,n)}var c=r.selectAll(\\\"path.box\\\");if(\\\"candlestick\\\"===o.type)c.each(function(t){if(!t.empty){var e=n.select(this),r=o[t.dir];l(e,r.line.width,r.line.color,r.fillcolor),e.style(\\\"opacity\\\",o.selectedpoints&&!t.selected?.3:1)}});else{l(c,s,o.line.color,o.fillcolor),r.selectAll(\\\"path.mean\\\").style({\\\"stroke-width\\\":s,\\\"stroke-dasharray\\\":2*s+\\\"px,\\\"+s+\\\"px\\\"}).call(i.stroke,o.line.color);var u=r.selectAll(\\\"path.point\\\");a.pointStyle(u,o,t)}})},styleOnSelect:function(t,e){var r=e[0].node3,n=e[0].trace,i=r.selectAll(\\\"path.point\\\");n.selectedpoints?a.selectedPointStyle(i,n):a.pointStyle(i,n,t)}}},{\\\"../../components/color\\\":580,\\\"../../components/drawing\\\":601,d3:157}],876:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\").extendFlat,i=t(\\\"../ohlc/attributes\\\"),a=t(\\\"../box/attributes\\\");function o(t){return{line:{color:n({},a.line.color,{dflt:t}),width:a.line.width,editType:\\\"style\\\"},fillcolor:a.fillcolor,editType:\\\"style\\\"}}e.exports={x:i.x,open:i.open,high:i.high,low:i.low,close:i.close,line:{width:n({},a.line.width,{}),editType:\\\"style\\\"},increasing:o(i.increasing.line.color.dflt),decreasing:o(i.decreasing.line.color.dflt),text:i.text,hovertext:i.hovertext,whiskerwidth:n({},a.whiskerwidth,{dflt:0}),hoverlabel:i.hoverlabel}},{\\\"../../lib\\\":703,\\\"../box/attributes\\\":864,\\\"../ohlc/attributes\\\":1022}],877:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plots/cartesian/axes\\\"),a=t(\\\"../ohlc/calc\\\").calcCommon;function o(t,e,r,n){return{min:r,q1:Math.min(t,n),med:n,q3:Math.max(t,n),max:e}}e.exports=function(t,e){var r=t._fullLayout,s=i.getFromId(t,e.xaxis),l=i.getFromId(t,e.yaxis),c=s.makeCalcdata(e,\\\"x\\\"),u=a(t,e,c,l,o);return u.length?(n.extendFlat(u[0].t,{num:r._numBoxes,dPos:n.distinctVals(c).minDiff/2,posLetter:\\\"x\\\",valLetter:\\\"y\\\"}),r._numBoxes++,u):[{t:{empty:!0}}]}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"../ohlc/calc\\\":1023}],878:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../components/color\\\"),a=t(\\\"../ohlc/ohlc_defaults\\\"),o=t(\\\"./attributes\\\");function s(t,e,r,n){var a=r(n+\\\".line.color\\\");r(n+\\\".line.width\\\",e.line.width),r(n+\\\".fillcolor\\\",i.addOpacity(a,.5))}e.exports=function(t,e,r,i){function l(r,i){return n.coerce(t,e,o,r,i)}a(t,e,l,i)?(l(\\\"line.width\\\"),s(t,e,l,\\\"increasing\\\"),s(t,e,l,\\\"decreasing\\\"),l(\\\"text\\\"),l(\\\"hovertext\\\"),l(\\\"whiskerwidth\\\"),i._requestRangeslider[e.xaxis]=!0):e.visible=!1}},{\\\"../../components/color\\\":580,\\\"../../lib\\\":703,\\\"../ohlc/ohlc_defaults\\\":1027,\\\"./attributes\\\":876}],879:[function(t,e,r){\\\"use strict\\\";e.exports={moduleType:\\\"trace\\\",name:\\\"candlestick\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"cartesian\\\",\\\"svg\\\",\\\"showLegend\\\",\\\"candlestick\\\",\\\"boxLayout\\\"],meta:{},attributes:t(\\\"./attributes\\\"),layoutAttributes:t(\\\"../box/layout_attributes\\\"),supplyLayoutDefaults:t(\\\"../box/layout_defaults\\\").supplyLayoutDefaults,crossTraceCalc:t(\\\"../box/cross_trace_calc\\\").crossTraceCalc,supplyDefaults:t(\\\"./defaults\\\"),calc:t(\\\"./calc\\\"),plot:t(\\\"../box/plot\\\").plot,layerName:\\\"boxlayer\\\",style:t(\\\"../box/style\\\").style,hoverPoints:t(\\\"../ohlc/hover\\\").hoverPoints,selectPoints:t(\\\"../ohlc/select\\\")}},{\\\"../../plots/cartesian\\\":762,\\\"../box/cross_trace_calc\\\":866,\\\"../box/layout_attributes\\\":871,\\\"../box/layout_defaults\\\":872,\\\"../box/plot\\\":873,\\\"../box/style\\\":875,\\\"../ohlc/hover\\\":1025,\\\"../ohlc/select\\\":1029,\\\"./attributes\\\":876,\\\"./calc\\\":877,\\\"./defaults\\\":878}],880:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./axis_defaults\\\"),i=t(\\\"../../plot_api/plot_template\\\");e.exports=function(t,e,r,a,o){a(\\\"a\\\")||(a(\\\"da\\\"),a(\\\"a0\\\")),a(\\\"b\\\")||(a(\\\"db\\\"),a(\\\"b0\\\")),function(t,e,r,a){[\\\"aaxis\\\",\\\"baxis\\\"].forEach(function(o){var s=o.charAt(0),l=t[o]||{},c=i.newContainer(e,o),u={tickfont:\\\"x\\\",id:s+\\\"axis\\\",letter:s,font:e.font,name:o,data:t[s],calendar:e.calendar,dfltColor:a,bgColor:r.paper_bgcolor,fullLayout:r};n(l,c,u),c._categories=c._categories||[],t[o]||\\\"-\\\"===l.type||(t[o]={type:l.type})})}(t,e,r,o)}},{\\\"../../plot_api/plot_template\\\":741,\\\"./axis_defaults\\\":885}],881:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\").isArrayOrTypedArray;e.exports=function(t){return function t(e,r){if(!n(e)||r>=10)return null;var i=1/0;var a=-1/0;var o=e.length;for(var s=0;s<o;s++){var l=e[s];if(n(l)){var c=t(l,r+1);c&&(i=Math.min(c[0],i),a=Math.max(c[1],a))}else i=Math.min(l,i),a=Math.max(l,a)}return[i,a]}(t,0)}},{\\\"../../lib\\\":703}],882:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/font_attributes\\\"),i=t(\\\"./axis_attributes\\\"),a=t(\\\"../../components/color/attributes\\\"),o=n({editType:\\\"calc\\\"});o.family.dflt='\\\"Open Sans\\\", verdana, arial, sans-serif',o.size.dflt=12,o.color.dflt=a.defaultLine,e.exports={carpet:{valType:\\\"string\\\",editType:\\\"calc\\\"},x:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},y:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},a:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},a0:{valType:\\\"number\\\",dflt:0,editType:\\\"calc\\\"},da:{valType:\\\"number\\\",dflt:1,editType:\\\"calc\\\"},b:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},b0:{valType:\\\"number\\\",dflt:0,editType:\\\"calc\\\"},db:{valType:\\\"number\\\",dflt:1,editType:\\\"calc\\\"},cheaterslope:{valType:\\\"number\\\",dflt:1,editType:\\\"calc\\\"},aaxis:i,baxis:i,font:o,color:{valType:\\\"color\\\",dflt:a.defaultLine,editType:\\\"plot\\\"},transforms:void 0}},{\\\"../../components/color/attributes\\\":579,\\\"../../plots/font_attributes\\\":777,\\\"./axis_attributes\\\":884}],883:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\").isArrayOrTypedArray;e.exports=function(t,e,r,i){var a,o,s,l,c,u,f,h,p,d,g,v,m,y=n(r)?\\\"a\\\":\\\"b\\\",x=(\\\"a\\\"===y?t.aaxis:t.baxis).smoothing,b=\\\"a\\\"===y?t.a2i:t.b2j,_=\\\"a\\\"===y?r:i,w=\\\"a\\\"===y?i:r,k=\\\"a\\\"===y?e.a.length:e.b.length,T=\\\"a\\\"===y?e.b.length:e.a.length,A=Math.floor(\\\"a\\\"===y?t.b2j(w):t.a2i(w)),M=\\\"a\\\"===y?function(e){return t.evalxy([],e,A)}:function(e){return t.evalxy([],A,e)};x&&(s=Math.max(0,Math.min(T-2,A)),l=A-s,o=\\\"a\\\"===y?function(e,r){return t.dxydi([],e,s,r,l)}:function(e,r){return t.dxydj([],s,e,l,r)});var S=b(_[0]),E=b(_[1]),C=S<E?1:-1,L=1e-8*(E-S),z=C>0?Math.floor:Math.ceil,O=C>0?Math.ceil:Math.floor,I=C>0?Math.min:Math.max,D=C>0?Math.max:Math.min,P=z(S+L),R=O(E-L),F=[[f=M(S)]];for(a=P;a*C<R*C;a+=C)c=[],g=D(S,a),m=(v=I(E,a+C))-g,u=Math.max(0,Math.min(k-2,Math.floor(.5*(g+v)))),h=M(v),x&&(p=o(u,g-u),d=o(u,v-u),c.push([f[0]+p[0]/3*m,f[1]+p[1]/3*m]),c.push([h[0]-d[0]/3*m,h[1]-d[1]/3*m])),c.push(h),F.push(c),f=h;return F}},{\\\"../../lib\\\":703}],884:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/font_attributes\\\"),i=t(\\\"../../components/color/attributes\\\"),a=t(\\\"../../plots/cartesian/layout_attributes\\\"),o=t(\\\"../../plot_api/edit_types\\\").overrideAll;e.exports={color:{valType:\\\"color\\\",editType:\\\"calc\\\"},smoothing:{valType:\\\"number\\\",dflt:1,min:0,max:1.3,editType:\\\"calc\\\"},title:{text:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"calc\\\"},font:n({editType:\\\"calc\\\"}),offset:{valType:\\\"number\\\",dflt:10,editType:\\\"calc\\\"},editType:\\\"calc\\\"},type:{valType:\\\"enumerated\\\",values:[\\\"-\\\",\\\"linear\\\",\\\"date\\\",\\\"category\\\"],dflt:\\\"-\\\",editType:\\\"calc\\\"},autorange:{valType:\\\"enumerated\\\",values:[!0,!1,\\\"reversed\\\"],dflt:!0,editType:\\\"calc\\\"},rangemode:{valType:\\\"enumerated\\\",values:[\\\"normal\\\",\\\"tozero\\\",\\\"nonnegative\\\"],dflt:\\\"normal\\\",editType:\\\"calc\\\"},range:{valType:\\\"info_array\\\",editType:\\\"calc\\\",items:[{valType:\\\"any\\\",editType:\\\"calc\\\"},{valType:\\\"any\\\",editType:\\\"calc\\\"}]},fixedrange:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"calc\\\"},cheatertype:{valType:\\\"enumerated\\\",values:[\\\"index\\\",\\\"value\\\"],dflt:\\\"value\\\",editType:\\\"calc\\\"},tickmode:{valType:\\\"enumerated\\\",values:[\\\"linear\\\",\\\"array\\\"],dflt:\\\"array\\\",editType:\\\"calc\\\"},nticks:{valType:\\\"integer\\\",min:0,dflt:0,editType:\\\"calc\\\"},tickvals:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},ticktext:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},showticklabels:{valType:\\\"enumerated\\\",values:[\\\"start\\\",\\\"end\\\",\\\"both\\\",\\\"none\\\"],dflt:\\\"start\\\",editType:\\\"calc\\\"},tickfont:n({editType:\\\"calc\\\"}),tickangle:{valType:\\\"angle\\\",dflt:\\\"auto\\\",editType:\\\"calc\\\"},tickprefix:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"calc\\\"},showtickprefix:{valType:\\\"enumerated\\\",values:[\\\"all\\\",\\\"first\\\",\\\"last\\\",\\\"none\\\"],dflt:\\\"all\\\",editType:\\\"calc\\\"},ticksuffix:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"calc\\\"},showticksuffix:{valType:\\\"enumerated\\\",values:[\\\"all\\\",\\\"first\\\",\\\"last\\\",\\\"none\\\"],dflt:\\\"all\\\",editType:\\\"calc\\\"},showexponent:{valType:\\\"enumerated\\\",values:[\\\"all\\\",\\\"first\\\",\\\"last\\\",\\\"none\\\"],dflt:\\\"all\\\",editType:\\\"calc\\\"},exponentformat:{valType:\\\"enumerated\\\",values:[\\\"none\\\",\\\"e\\\",\\\"E\\\",\\\"power\\\",\\\"SI\\\",\\\"B\\\"],dflt:\\\"B\\\",editType:\\\"calc\\\"},separatethousands:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"calc\\\"},tickformat:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"calc\\\"},tickformatstops:o(a.tickformatstops,\\\"calc\\\",\\\"from-root\\\"),categoryorder:{valType:\\\"enumerated\\\",values:[\\\"trace\\\",\\\"category ascending\\\",\\\"category descending\\\",\\\"array\\\"],dflt:\\\"trace\\\",editType:\\\"calc\\\"},categoryarray:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},labelpadding:{valType:\\\"integer\\\",dflt:10,editType:\\\"calc\\\"},labelprefix:{valType:\\\"string\\\",editType:\\\"calc\\\"},labelsuffix:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"calc\\\"},showline:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"calc\\\"},linecolor:{valType:\\\"color\\\",dflt:i.defaultLine,editType:\\\"calc\\\"},linewidth:{valType:\\\"number\\\",min:0,dflt:1,editType:\\\"calc\\\"},gridcolor:{valType:\\\"color\\\",editType:\\\"calc\\\"},gridwidth:{valType:\\\"number\\\",min:0,dflt:1,editType:\\\"calc\\\"},showgrid:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"},minorgridcount:{valType:\\\"integer\\\",min:0,dflt:0,editType:\\\"calc\\\"},minorgridwidth:{valType:\\\"number\\\",min:0,dflt:1,editType:\\\"calc\\\"},minorgridcolor:{valType:\\\"color\\\",dflt:i.lightLine,editType:\\\"calc\\\"},startline:{valType:\\\"boolean\\\",editType:\\\"calc\\\"},startlinecolor:{valType:\\\"color\\\",editType:\\\"calc\\\"},startlinewidth:{valType:\\\"number\\\",dflt:1,editType:\\\"calc\\\"},endline:{valType:\\\"boolean\\\",editType:\\\"calc\\\"},endlinewidth:{valType:\\\"number\\\",dflt:1,editType:\\\"calc\\\"},endlinecolor:{valType:\\\"color\\\",editType:\\\"calc\\\"},tick0:{valType:\\\"number\\\",min:0,dflt:0,editType:\\\"calc\\\"},dtick:{valType:\\\"number\\\",min:0,dflt:1,editType:\\\"calc\\\"},arraytick0:{valType:\\\"integer\\\",min:0,dflt:0,editType:\\\"calc\\\"},arraydtick:{valType:\\\"integer\\\",min:1,dflt:1,editType:\\\"calc\\\"},_deprecated:{title:{valType:\\\"string\\\",editType:\\\"calc\\\"},titlefont:n({editType:\\\"calc\\\"}),titleoffset:{valType:\\\"number\\\",dflt:10,editType:\\\"calc\\\"}},editType:\\\"calc\\\"}},{\\\"../../components/color/attributes\\\":579,\\\"../../plot_api/edit_types\\\":734,\\\"../../plots/cartesian/layout_attributes\\\":763,\\\"../../plots/font_attributes\\\":777}],885:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./attributes\\\"),i=t(\\\"../../components/color\\\").addOpacity,a=t(\\\"../../registry\\\"),o=t(\\\"../../lib\\\"),s=t(\\\"../../plots/cartesian/tick_value_defaults\\\"),l=t(\\\"../../plots/cartesian/tick_label_defaults\\\"),c=t(\\\"../../plots/cartesian/category_order_defaults\\\"),u=t(\\\"../../plots/cartesian/set_convert\\\"),f=t(\\\"../../plots/cartesian/axis_autotype\\\");e.exports=function(t,e,r){var h=r.letter,p=r.font||{},d=n[h+\\\"axis\\\"];function g(r,n){return o.coerce(t,e,d,r,n)}function v(r,n){return o.coerce2(t,e,d,r,n)}r.name&&(e._name=r.name,e._id=r.name);var m=g(\\\"type\\\");(\\\"-\\\"===m&&(r.data&&function(t,e){if(\\\"-\\\"!==t.type)return;var r=t._id.charAt(0),n=t[r+\\\"calendar\\\"];t.type=f(e,n)}(e,r.data),\\\"-\\\"===e.type?e.type=\\\"linear\\\":m=t.type=e.type),g(\\\"smoothing\\\"),g(\\\"cheatertype\\\"),g(\\\"showticklabels\\\"),g(\\\"labelprefix\\\",h+\\\" = \\\"),g(\\\"labelsuffix\\\"),g(\\\"showtickprefix\\\"),g(\\\"showticksuffix\\\"),g(\\\"separatethousands\\\"),g(\\\"tickformat\\\"),g(\\\"exponentformat\\\"),g(\\\"showexponent\\\"),g(\\\"categoryorder\\\"),g(\\\"tickmode\\\"),g(\\\"tickvals\\\"),g(\\\"ticktext\\\"),g(\\\"tick0\\\"),g(\\\"dtick\\\"),\\\"array\\\"===e.tickmode&&(g(\\\"arraytick0\\\"),g(\\\"arraydtick\\\")),g(\\\"labelpadding\\\"),e._hovertitle=h,\\\"date\\\"===m)&&a.getComponentMethod(\\\"calendars\\\",\\\"handleDefaults\\\")(t,e,\\\"calendar\\\",r.calendar);u(e,r.fullLayout),e.c2p=o.identity;var y=g(\\\"color\\\",r.dfltColor),x=y===t.color?y:p.color;g(\\\"title.text\\\")&&(o.coerceFont(g,\\\"title.font\\\",{family:p.family,size:Math.round(1.2*p.size),color:x}),g(\\\"title.offset\\\")),g(\\\"tickangle\\\"),g(\\\"autorange\\\",!e.isValidRange(t.range))&&g(\\\"rangemode\\\"),g(\\\"range\\\"),e.cleanRange(),g(\\\"fixedrange\\\"),s(t,e,g,m),l(t,e,g,m,r),c(t,e,g,{data:r.data,dataAttr:h});var b=v(\\\"gridcolor\\\",i(y,.3)),_=v(\\\"gridwidth\\\"),w=g(\\\"showgrid\\\");w||(delete e.gridcolor,delete e.gridwidth);var k=v(\\\"startlinecolor\\\",y),T=v(\\\"startlinewidth\\\",_);g(\\\"startline\\\",e.showgrid||!!k||!!T)||(delete e.startlinecolor,delete e.startlinewidth);var A=v(\\\"endlinecolor\\\",y),M=v(\\\"endlinewidth\\\",_);return g(\\\"endline\\\",e.showgrid||!!A||!!M)||(delete e.endlinecolor,delete e.endlinewidth),w?(g(\\\"minorgridcount\\\"),g(\\\"minorgridwidth\\\",_),g(\\\"minorgridcolor\\\",i(b,.06)),e.minorgridcount||(delete e.minorgridwidth,delete e.minorgridcolor)):(delete e.gridcolor,delete e.gridWidth),\\\"none\\\"===e.showticklabels&&(delete e.tickfont,delete e.tickangle,delete e.showexponent,delete e.exponentformat,delete e.tickformat,delete e.showticksuffix,delete e.showtickprefix),e.showticksuffix||delete e.ticksuffix,e.showtickprefix||delete e.tickprefix,g(\\\"tickmode\\\"),e}},{\\\"../../components/color\\\":580,\\\"../../lib\\\":703,\\\"../../plots/cartesian/axis_autotype\\\":752,\\\"../../plots/cartesian/category_order_defaults\\\":755,\\\"../../plots/cartesian/set_convert\\\":769,\\\"../../plots/cartesian/tick_label_defaults\\\":770,\\\"../../plots/cartesian/tick_value_defaults\\\":772,\\\"../../registry\\\":831,\\\"./attributes\\\":882}],886:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/axes\\\"),i=t(\\\"../../lib\\\").isArray1D,a=t(\\\"./cheater_basis\\\"),o=t(\\\"./array_minmax\\\"),s=t(\\\"./calc_gridlines\\\"),l=t(\\\"./calc_labels\\\"),c=t(\\\"./calc_clippath\\\"),u=t(\\\"../heatmap/clean_2d_array\\\"),f=t(\\\"./smooth_fill_2d_array\\\"),h=t(\\\"../heatmap/convert_column_xyz\\\"),p=t(\\\"./set_convert\\\");e.exports=function(t,e){var r=n.getFromId(t,e.xaxis),d=n.getFromId(t,e.yaxis),g=e.aaxis,v=e.baxis,m=e.x,y=e.y,x=[];m&&i(m)&&x.push(\\\"x\\\"),y&&i(y)&&x.push(\\\"y\\\"),x.length&&h(e,g,v,\\\"a\\\",\\\"b\\\",x);var b=e._a=e._a||e.a,_=e._b=e._b||e.b;m=e._x||e.x,y=e._y||e.y;var w={};if(e._cheater){var k=\\\"index\\\"===g.cheatertype?b.length:b,T=\\\"index\\\"===v.cheatertype?_.length:_;m=a(k,T,e.cheaterslope)}e._x=m=u(m),e._y=y=u(y),f(m,b,_),f(y,b,_),p(e),e.setScale();var A=o(m),M=o(y),S=.5*(A[1]-A[0]),E=.5*(A[1]+A[0]),C=.5*(M[1]-M[0]),L=.5*(M[1]+M[0]);return A=[E-1.3*S,E+1.3*S],M=[L-1.3*C,L+1.3*C],e._extremes[r._id]=n.findExtremes(r,A,{padded:!0}),e._extremes[d._id]=n.findExtremes(d,M,{padded:!0}),s(e,\\\"a\\\",\\\"b\\\"),s(e,\\\"b\\\",\\\"a\\\"),l(e,g),l(e,v),w.clipsegments=c(e._xctrl,e._yctrl,g,v),w.x=m,w.y=y,w.a=b,w.b=_,[w]}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"../heatmap/clean_2d_array\\\":974,\\\"../heatmap/convert_column_xyz\\\":976,\\\"./array_minmax\\\":881,\\\"./calc_clippath\\\":887,\\\"./calc_gridlines\\\":888,\\\"./calc_labels\\\":889,\\\"./cheater_basis\\\":891,\\\"./set_convert\\\":904,\\\"./smooth_fill_2d_array\\\":905}],887:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,n){var i,a,o,s=[],l=!!r.smoothing,c=!!n.smoothing,u=t[0].length-1,f=t.length-1;for(i=0,a=[],o=[];i<=u;i++)a[i]=t[0][i],o[i]=e[0][i];for(s.push({x:a,y:o,bicubic:l}),i=0,a=[],o=[];i<=f;i++)a[i]=t[i][u],o[i]=e[i][u];for(s.push({x:a,y:o,bicubic:c}),i=u,a=[],o=[];i>=0;i--)a[u-i]=t[f][i],o[u-i]=e[f][i];for(s.push({x:a,y:o,bicubic:l}),i=f,a=[],o=[];i>=0;i--)a[f-i]=t[i][0],o[f-i]=e[i][0];return s.push({x:a,y:o,bicubic:c}),s}},{}],888:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/axes\\\"),i=t(\\\"../../lib/extend\\\").extendFlat;e.exports=function(t,e,r){var a,o,s,l,c,u,f,h,p,d,g,v,m,y,x=t[\\\"_\\\"+e],b=t[e+\\\"axis\\\"],_=b._gridlines=[],w=b._minorgridlines=[],k=b._boundarylines=[],T=t[\\\"_\\\"+r],A=t[r+\\\"axis\\\"];\\\"array\\\"===b.tickmode&&(b.tickvals=x.slice());var M=t._xctrl,S=t._yctrl,E=M[0].length,C=M.length,L=t._a.length,z=t._b.length;n.prepTicks(b),\\\"array\\\"===b.tickmode&&delete b.tickvals;var O=b.smoothing?3:1;function I(n){var i,a,o,s,l,c,u,f,p,d,g,v,m=[],y=[],x={};if(\\\"b\\\"===e)for(a=t.b2j(n),o=Math.floor(Math.max(0,Math.min(z-2,a))),s=a-o,x.length=z,x.crossLength=L,x.xy=function(e){return t.evalxy([],e,a)},x.dxy=function(e,r){return t.dxydi([],e,o,r,s)},i=0;i<L;i++)c=Math.min(L-2,i),u=i-c,f=t.evalxy([],i,a),A.smoothing&&i>0&&(p=t.dxydi([],i-1,o,0,s),m.push(l[0]+p[0]/3),y.push(l[1]+p[1]/3),d=t.dxydi([],i-1,o,1,s),m.push(f[0]-d[0]/3),y.push(f[1]-d[1]/3)),m.push(f[0]),y.push(f[1]),l=f;else for(i=t.a2i(n),c=Math.floor(Math.max(0,Math.min(L-2,i))),u=i-c,x.length=L,x.crossLength=z,x.xy=function(e){return t.evalxy([],i,e)},x.dxy=function(e,r){return t.dxydj([],c,e,u,r)},a=0;a<z;a++)o=Math.min(z-2,a),s=a-o,f=t.evalxy([],i,a),A.smoothing&&a>0&&(g=t.dxydj([],c,a-1,u,0),m.push(l[0]+g[0]/3),y.push(l[1]+g[1]/3),v=t.dxydj([],c,a-1,u,1),m.push(f[0]-v[0]/3),y.push(f[1]-v[1]/3)),m.push(f[0]),y.push(f[1]),l=f;return x.axisLetter=e,x.axis=b,x.crossAxis=A,x.value=n,x.constvar=r,x.index=h,x.x=m,x.y=y,x.smoothing=A.smoothing,x}function D(n){var i,a,o,s,l,c=[],u=[],f={};if(f.length=x.length,f.crossLength=T.length,\\\"b\\\"===e)for(o=Math.max(0,Math.min(z-2,n)),l=Math.min(1,Math.max(0,n-o)),f.xy=function(e){return t.evalxy([],e,n)},f.dxy=function(e,r){return t.dxydi([],e,o,r,l)},i=0;i<E;i++)c[i]=M[n*O][i],u[i]=S[n*O][i];else for(a=Math.max(0,Math.min(L-2,n)),s=Math.min(1,Math.max(0,n-a)),f.xy=function(e){return t.evalxy([],n,e)},f.dxy=function(e,r){return t.dxydj([],a,e,s,r)},i=0;i<C;i++)c[i]=M[i][n*O],u[i]=S[i][n*O];return f.axisLetter=e,f.axis=b,f.crossAxis=A,f.value=x[n],f.constvar=r,f.index=n,f.x=c,f.y=u,f.smoothing=A.smoothing,f}if(\\\"array\\\"===b.tickmode){for(l=5e-15,u=(c=[Math.floor((x.length-1-b.arraytick0)/b.arraydtick*(1+l)),Math.ceil(-b.arraytick0/b.arraydtick/(1+l))].sort(function(t,e){return t-e}))[0]-1,f=c[1]+1,h=u;h<f;h++)(o=b.arraytick0+b.arraydtick*h)<0||o>x.length-1||_.push(i(D(o),{color:b.gridcolor,width:b.gridwidth}));for(h=u;h<f;h++)if(s=b.arraytick0+b.arraydtick*h,g=Math.min(s+b.arraydtick,x.length-1),!(s<0||s>x.length-1||g<0||g>x.length-1))for(v=x[s],m=x[g],a=0;a<b.minorgridcount;a++)(y=g-s)<=0||(d=v+(m-v)*(a+1)/(b.minorgridcount+1)*(b.arraydtick/y))<x[0]||d>x[x.length-1]||w.push(i(I(d),{color:b.minorgridcolor,width:b.minorgridwidth}));b.startline&&k.push(i(D(0),{color:b.startlinecolor,width:b.startlinewidth})),b.endline&&k.push(i(D(x.length-1),{color:b.endlinecolor,width:b.endlinewidth}))}else{for(l=5e-15,u=(c=[Math.floor((x[x.length-1]-b.tick0)/b.dtick*(1+l)),Math.ceil((x[0]-b.tick0)/b.dtick/(1+l))].sort(function(t,e){return t-e}))[0],f=c[1],h=u;h<=f;h++)p=b.tick0+b.dtick*h,_.push(i(I(p),{color:b.gridcolor,width:b.gridwidth}));for(h=u-1;h<f+1;h++)for(p=b.tick0+b.dtick*h,a=0;a<b.minorgridcount;a++)(d=p+b.dtick*(a+1)/(b.minorgridcount+1))<x[0]||d>x[x.length-1]||w.push(i(I(d),{color:b.minorgridcolor,width:b.minorgridwidth}));b.startline&&k.push(i(I(x[0]),{color:b.startlinecolor,width:b.startlinewidth})),b.endline&&k.push(i(I(x[x.length-1]),{color:b.endlinecolor,width:b.endlinewidth}))}}},{\\\"../../lib/extend\\\":693,\\\"../../plots/cartesian/axes\\\":751}],889:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/axes\\\"),i=t(\\\"../../lib/extend\\\").extendFlat;e.exports=function(t,e){var r,a,o,s=e._labels=[],l=e._gridlines;for(r=0;r<l.length;r++)o=l[r],-1!==[\\\"start\\\",\\\"both\\\"].indexOf(e.showticklabels)&&(a=n.tickText(e,o.value),i(a,{prefix:void 0,suffix:void 0,endAnchor:!0,xy:o.xy(0),dxy:o.dxy(0,0),axis:o.axis,length:o.crossAxis.length,font:o.axis.tickfont,isFirst:0===r,isLast:r===l.length-1}),s.push(a)),-1!==[\\\"end\\\",\\\"both\\\"].indexOf(e.showticklabels)&&(a=n.tickText(e,o.value),i(a,{endAnchor:!1,xy:o.xy(o.crossLength-1),dxy:o.dxy(o.crossLength-2,1),axis:o.axis,length:o.crossAxis.length,font:o.axis.tickfont,isFirst:0===r,isLast:r===l.length-1}),s.push(a))}},{\\\"../../lib/extend\\\":693,\\\"../../plots/cartesian/axes\\\":751}],890:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,n){var i=t[0]-e[0],a=t[1]-e[1],o=r[0]-e[0],s=r[1]-e[1],l=Math.pow(i*i+a*a,.25),c=Math.pow(o*o+s*s,.25),u=(c*c*i-l*l*o)*n,f=(c*c*a-l*l*s)*n,h=c*(l+c)*3,p=l*(l+c)*3;return[[e[0]+(h&&u/h),e[1]+(h&&f/h)],[e[0]-(p&&u/p),e[1]-(p&&f/p)]]}},{}],891:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\").isArrayOrTypedArray;e.exports=function(t,e,r){var i,a,o,s,l,c,u=[],f=n(t)?t.length:t,h=n(e)?e.length:e,p=n(t)?t:null,d=n(e)?e:null;p&&(o=(p.length-1)/(p[p.length-1]-p[0])/(f-1)),d&&(s=(d.length-1)/(d[d.length-1]-d[0])/(h-1));var g=1/0,v=-1/0;for(a=0;a<h;a++)for(u[a]=[],l=d?(d[a]-d[0])*s:a/(h-1),i=0;i<f;i++)c=(p?(p[i]-p[0])*o:i/(f-1))-l*r,g=Math.min(c,g),v=Math.max(c,v),u[a][i]=c;var m=1/(v-g),y=-g*m;for(a=0;a<h;a++)for(i=0;i<f;i++)u[a][i]=m*u[a][i]+y;return u}},{\\\"../../lib\\\":703}],892:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./catmull_rom\\\"),i=t(\\\"../../lib\\\").ensureArray;function a(t,e,r){var n=-.5*r[0]+1.5*e[0],i=-.5*r[1]+1.5*e[1];return[(2*n+t[0])/3,(2*i+t[1])/3]}e.exports=function(t,e,r,o,s,l){var c,u,f,h,p,d,g,v,m,y,x=r[0].length,b=r.length,_=s?3*x-2:x,w=l?3*b-2:b;for(t=i(t,w),e=i(e,w),f=0;f<w;f++)t[f]=i(t[f],_),e[f]=i(e[f],_);for(u=0,h=0;u<b;u++,h+=l?3:1)for(p=t[h],d=e[h],g=r[u],v=o[u],c=0,f=0;c<x;c++,f+=s?3:1)p[f]=g[c],d[f]=v[c];if(s)for(u=0,h=0;u<b;u++,h+=l?3:1){for(c=1,f=3;c<x-1;c++,f+=3)m=n([r[u][c-1],o[u][c-1]],[r[u][c],o[u][c]],[r[u][c+1],o[u][c+1]],s),t[h][f-1]=m[0][0],e[h][f-1]=m[0][1],t[h][f+1]=m[1][0],e[h][f+1]=m[1][1];y=a([t[h][0],e[h][0]],[t[h][2],e[h][2]],[t[h][3],e[h][3]]),t[h][1]=y[0],e[h][1]=y[1],y=a([t[h][_-1],e[h][_-1]],[t[h][_-3],e[h][_-3]],[t[h][_-4],e[h][_-4]]),t[h][_-2]=y[0],e[h][_-2]=y[1]}if(l)for(f=0;f<_;f++){for(h=3;h<w-3;h+=3)m=n([t[h-3][f],e[h-3][f]],[t[h][f],e[h][f]],[t[h+3][f],e[h+3][f]],l),t[h-1][f]=m[0][0],e[h-1][f]=m[0][1],t[h+1][f]=m[1][0],e[h+1][f]=m[1][1];y=a([t[0][f],e[0][f]],[t[2][f],e[2][f]],[t[3][f],e[3][f]]),t[1][f]=y[0],e[1][f]=y[1],y=a([t[w-1][f],e[w-1][f]],[t[w-3][f],e[w-3][f]],[t[w-4][f],e[w-4][f]]),t[w-2][f]=y[0],e[w-2][f]=y[1]}if(s&&l)for(h=1;h<w;h+=(h+1)%3==0?2:1){for(f=3;f<_-3;f+=3)m=n([t[h][f-3],e[h][f-3]],[t[h][f],e[h][f]],[t[h][f+3],e[h][f+3]],s),t[h][f-1]=.5*(t[h][f-1]+m[0][0]),e[h][f-1]=.5*(e[h][f-1]+m[0][1]),t[h][f+1]=.5*(t[h][f+1]+m[1][0]),e[h][f+1]=.5*(e[h][f+1]+m[1][1]);y=a([t[h][0],e[h][0]],[t[h][2],e[h][2]],[t[h][3],e[h][3]]),t[h][1]=.5*(t[h][1]+y[0]),e[h][1]=.5*(e[h][1]+y[1]),y=a([t[h][_-1],e[h][_-1]],[t[h][_-3],e[h][_-3]],[t[h][_-4],e[h][_-4]]),t[h][_-2]=.5*(t[h][_-2]+y[0]),e[h][_-2]=.5*(e[h][_-2]+y[1])}return[t,e]}},{\\\"../../lib\\\":703,\\\"./catmull_rom\\\":890}],893:[function(t,e,r){\\\"use strict\\\";e.exports={RELATIVE_CULL_TOLERANCE:1e-6}},{}],894:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){return e&&r?function(e,r,n,i,a){var o,s,l,c,u,f;e||(e=[]),r*=3,n*=3;var h=i*i,p=1-i,d=p*p,g=p*i*2,v=-3*d,m=3*(d-g),y=3*(g-h),x=3*h,b=a*a,_=b*a,w=1-a,k=w*w,T=k*w;for(f=0;f<t.length;f++)o=v*(u=t[f])[n][r]+m*u[n][r+1]+y*u[n][r+2]+x*u[n][r+3],s=v*u[n+1][r]+m*u[n+1][r+1]+y*u[n+1][r+2]+x*u[n+1][r+3],l=v*u[n+2][r]+m*u[n+2][r+1]+y*u[n+2][r+2]+x*u[n+2][r+3],c=v*u[n+3][r]+m*u[n+3][r+1]+y*u[n+3][r+2]+x*u[n+3][r+3],e[f]=T*o+3*(k*a*s+w*b*l)+_*c;return e}:e?function(e,r,n,i,a){var o,s,l,c;e||(e=[]),r*=3;var u=i*i,f=1-i,h=f*f,p=f*i*2,d=-3*h,g=3*(h-p),v=3*(p-u),m=3*u,y=1-a;for(l=0;l<t.length;l++)o=d*(c=t[l])[n][r]+g*c[n][r+1]+v*c[n][r+2]+m*c[n][r+3],s=d*c[n+1][r]+g*c[n+1][r+1]+v*c[n+1][r+2]+m*c[n+1][r+3],e[l]=y*o+a*s;return e}:r?function(e,r,n,i,a){var o,s,l,c,u,f;e||(e=[]),n*=3;var h=a*a,p=h*a,d=1-a,g=d*d,v=g*d;for(u=0;u<t.length;u++)o=(f=t[u])[n][r+1]-f[n][r],s=f[n+1][r+1]-f[n+1][r],l=f[n+2][r+1]-f[n+2][r],c=f[n+3][r+1]-f[n+3][r],e[u]=v*o+3*(g*a*s+d*h*l)+p*c;return e}:function(e,r,n,i,a){var o,s,l,c;e||(e=[]);var u=1-a;for(l=0;l<t.length;l++)o=(c=t[l])[n][r+1]-c[n][r],s=c[n+1][r+1]-c[n+1][r],e[l]=u*o+a*s;return e}}},{}],895:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){return e&&r?function(e,r,n,i,a){var o,s,l,c,u,f;e||(e=[]),r*=3,n*=3;var h=i*i,p=h*i,d=1-i,g=d*d,v=g*d,m=a*a,y=1-a,x=y*y,b=y*a*2,_=-3*x,w=3*(x-b),k=3*(b-m),T=3*m;for(f=0;f<t.length;f++)o=_*(u=t[f])[n][r]+w*u[n+1][r]+k*u[n+2][r]+T*u[n+3][r],s=_*u[n][r+1]+w*u[n+1][r+1]+k*u[n+2][r+1]+T*u[n+3][r+1],l=_*u[n][r+2]+w*u[n+1][r+2]+k*u[n+2][r+2]+T*u[n+3][r+2],c=_*u[n][r+3]+w*u[n+1][r+3]+k*u[n+2][r+3]+T*u[n+3][r+3],e[f]=v*o+3*(g*i*s+d*h*l)+p*c;return e}:e?function(e,r,n,i,a){var o,s,l,c,u,f;e||(e=[]),r*=3;var h=a*a,p=h*a,d=1-a,g=d*d,v=g*d;for(u=0;u<t.length;u++)o=(f=t[u])[n+1][r]-f[n][r],s=f[n+1][r+1]-f[n][r+1],l=f[n+1][r+2]-f[n][r+2],c=f[n+1][r+3]-f[n][r+3],e[u]=v*o+3*(g*a*s+d*h*l)+p*c;return e}:r?function(e,r,n,i,a){var o,s,l,c;e||(e=[]),n*=3;var u=1-i,f=a*a,h=1-a,p=h*h,d=h*a*2,g=-3*p,v=3*(p-d),m=3*(d-f),y=3*f;for(l=0;l<t.length;l++)o=g*(c=t[l])[n][r]+v*c[n+1][r]+m*c[n+2][r]+y*c[n+3][r],s=g*c[n][r+1]+v*c[n+1][r+1]+m*c[n+2][r+1]+y*c[n+3][r+1],e[l]=u*o+i*s;return e}:function(e,r,n,i,a){var o,s,l,c;e||(e=[]);var u=1-i;for(l=0;l<t.length;l++)o=(c=t[l])[n+1][r]-c[n][r],s=c[n+1][r+1]-c[n][r+1],e[l]=u*o+i*s;return e}}},{}],896:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,n,i){var a=e-2,o=r-2;return n&&i?function(e,r,n){var i,s,l,c,u,f;e||(e=[]);var h=Math.max(0,Math.min(Math.floor(r),a)),p=Math.max(0,Math.min(Math.floor(n),o)),d=Math.max(0,Math.min(1,r-h)),g=Math.max(0,Math.min(1,n-p));h*=3,p*=3;var v=d*d,m=v*d,y=1-d,x=y*y,b=x*y,_=g*g,w=_*g,k=1-g,T=k*k,A=T*k;for(f=0;f<t.length;f++)i=b*(u=t[f])[p][h]+3*(x*d*u[p][h+1]+y*v*u[p][h+2])+m*u[p][h+3],s=b*u[p+1][h]+3*(x*d*u[p+1][h+1]+y*v*u[p+1][h+2])+m*u[p+1][h+3],l=b*u[p+2][h]+3*(x*d*u[p+2][h+1]+y*v*u[p+2][h+2])+m*u[p+2][h+3],c=b*u[p+3][h]+3*(x*d*u[p+3][h+1]+y*v*u[p+3][h+2])+m*u[p+3][h+3],e[f]=A*i+3*(T*g*s+k*_*l)+w*c;return e}:n?function(e,r,n){e||(e=[]);var i,s,l,c,u,f,h=Math.max(0,Math.min(Math.floor(r),a)),p=Math.max(0,Math.min(Math.floor(n),o)),d=Math.max(0,Math.min(1,r-h)),g=Math.max(0,Math.min(1,n-p));h*=3;var v=d*d,m=v*d,y=1-d,x=y*y,b=x*y,_=1-g;for(u=0;u<t.length;u++)i=_*(f=t[u])[p][h]+g*f[p+1][h],s=_*f[p][h+1]+g*f[p+1][h+1],l=_*f[p][h+2]+g*f[p+1][h+1],c=_*f[p][h+3]+g*f[p+1][h+1],e[u]=b*i+3*(x*d*s+y*v*l)+m*c;return e}:i?function(e,r,n){e||(e=[]);var i,s,l,c,u,f,h=Math.max(0,Math.min(Math.floor(r),a)),p=Math.max(0,Math.min(Math.floor(n),o)),d=Math.max(0,Math.min(1,r-h)),g=Math.max(0,Math.min(1,n-p));p*=3;var v=g*g,m=v*g,y=1-g,x=y*y,b=x*y,_=1-d;for(u=0;u<t.length;u++)i=_*(f=t[u])[p][h]+d*f[p][h+1],s=_*f[p+1][h]+d*f[p+1][h+1],l=_*f[p+2][h]+d*f[p+2][h+1],c=_*f[p+3][h]+d*f[p+3][h+1],e[u]=b*i+3*(x*g*s+y*v*l)+m*c;return e}:function(e,r,n){e||(e=[]);var i,s,l,c,u=Math.max(0,Math.min(Math.floor(r),a)),f=Math.max(0,Math.min(Math.floor(n),o)),h=Math.max(0,Math.min(1,r-u)),p=Math.max(0,Math.min(1,n-f)),d=1-p,g=1-h;for(l=0;l<t.length;l++)i=g*(c=t[l])[f][u]+h*c[f][u+1],s=g*c[f+1][u]+h*c[f+1][u+1],e[l]=d*i+p*s;return e}}},{}],897:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./xy_defaults\\\"),a=t(\\\"./ab_defaults\\\"),o=t(\\\"./attributes\\\"),s=t(\\\"../../components/color/attributes\\\");e.exports=function(t,e,r,l){function c(r,i){return n.coerce(t,e,o,r,i)}e._clipPathId=\\\"clip\\\"+e.uid+\\\"carpet\\\";var u=c(\\\"color\\\",s.defaultLine);(n.coerceFont(c,\\\"font\\\"),c(\\\"carpet\\\"),a(t,e,l,c,u),e.a&&e.b)?(e.a.length<3&&(e.aaxis.smoothing=0),e.b.length<3&&(e.baxis.smoothing=0),i(t,e,c)||(e.visible=!1),e._cheater&&c(\\\"cheaterslope\\\")):e.visible=!1}},{\\\"../../components/color/attributes\\\":579,\\\"../../lib\\\":703,\\\"./ab_defaults\\\":880,\\\"./attributes\\\":882,\\\"./xy_defaults\\\":906}],898:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),plot:t(\\\"./plot\\\"),calc:t(\\\"./calc\\\"),animatable:!0,isContainer:!0,moduleType:\\\"trace\\\",name:\\\"carpet\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"cartesian\\\",\\\"svg\\\",\\\"carpet\\\",\\\"carpetAxis\\\",\\\"notLegendIsolatable\\\",\\\"noMultiCategory\\\"],meta:{}}},{\\\"../../plots/cartesian\\\":762,\\\"./attributes\\\":882,\\\"./calc\\\":886,\\\"./defaults\\\":897,\\\"./plot\\\":903}],899:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){for(var r,n=t._fullData.length,i=0;i<n;i++){var a=t._fullData[i];if(a.index!==e.index&&(\\\"carpet\\\"===a.type&&(r||(r=a),a.carpet===e.carpet)))return a}return r}},{}],900:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){if(0===t.length)return\\\"\\\";var n,i=[],a=r?3:1;for(n=0;n<t.length;n+=a)i.push(t[n]+\\\",\\\"+e[n]),r&&n<t.length-a&&(i.push(\\\"C\\\"),i.push([t[n+1]+\\\",\\\"+e[n+1],t[n+2]+\\\",\\\"+e[n+2]+\\\" \\\"].join(\\\" \\\")));return i.join(r?\\\"\\\":\\\"L\\\")}},{}],901:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\").isArrayOrTypedArray;e.exports=function(t,e,r){var i;for(n(t)?t.length>e.length&&(t=t.slice(0,e.length)):t=[],i=0;i<e.length;i++)t[i]=r(e[i]);return t}},{\\\"../../lib\\\":703}],902:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,n,i,a){var o=i[0]*t.dpdx(e),s=i[1]*t.dpdy(r),l=1,c=1;if(a){var u=Math.sqrt(i[0]*i[0]+i[1]*i[1]),f=Math.sqrt(a[0]*a[0]+a[1]*a[1]),h=(i[0]*a[0]+i[1]*a[1])/u/f;c=Math.max(0,h)}var p=180*Math.atan2(s,o)/Math.PI;return p<-90?(p+=180,l=-l):p>90&&(p-=180,l=-l),{angle:p,flip:l,p:t.c2p(n,e,r),offsetMultplier:c}}},{}],903:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../components/drawing\\\"),a=t(\\\"./map_1d_array\\\"),o=t(\\\"./makepath\\\"),s=t(\\\"./orient_text\\\"),l=t(\\\"../../lib/svg_text_utils\\\"),c=t(\\\"../../lib\\\"),u=t(\\\"../../constants/alignment\\\");function f(t,e,r,i,s,l){var c=\\\"const-\\\"+s+\\\"-lines\\\",u=r.selectAll(\\\".\\\"+c).data(l);u.enter().append(\\\"path\\\").classed(c,!0).style(\\\"vector-effect\\\",\\\"non-scaling-stroke\\\"),u.each(function(r){var i=r,s=i.x,l=i.y,c=a([],s,t.c2p),u=a([],l,e.c2p),f=\\\"M\\\"+o(c,u,i.smoothing);n.select(this).attr(\\\"d\\\",f).style(\\\"stroke-width\\\",i.width).style(\\\"stroke\\\",i.color).style(\\\"fill\\\",\\\"none\\\")}),u.exit().remove()}function h(t,e,r,a,o,c,u,f){var h=c.selectAll(\\\"text.\\\"+f).data(u);h.enter().append(\\\"text\\\").classed(f,!0);var p=0,d={};return h.each(function(o,c){var u;if(\\\"auto\\\"===o.axis.tickangle)u=s(a,e,r,o.xy,o.dxy);else{var f=(o.axis.tickangle+180)*Math.PI/180;u=s(a,e,r,o.xy,[Math.cos(f),Math.sin(f)])}c||(d={angle:u.angle,flip:u.flip});var h=(o.endAnchor?-1:1)*u.flip,g=n.select(this).attr({\\\"text-anchor\\\":h>0?\\\"start\\\":\\\"end\\\",\\\"data-notex\\\":1}).call(i.font,o.font).text(o.text).call(l.convertToTspans,t),v=i.bBox(this);g.attr(\\\"transform\\\",\\\"translate(\\\"+u.p[0]+\\\",\\\"+u.p[1]+\\\") rotate(\\\"+u.angle+\\\")translate(\\\"+o.axis.labelpadding*h+\\\",\\\"+.3*v.height+\\\")\\\"),p=Math.max(p,v.width+o.axis.labelpadding)}),h.exit().remove(),d.maxExtent=p,d}e.exports=function(t,e,r,i){var l=e.xaxis,u=e.yaxis,p=t._fullLayout._clips;c.makeTraceGroups(i,r,\\\"trace\\\").each(function(e){var r=n.select(this),i=e[0],d=i.trace,v=d.aaxis,m=d.baxis,y=c.ensureSingle(r,\\\"g\\\",\\\"minorlayer\\\"),x=c.ensureSingle(r,\\\"g\\\",\\\"majorlayer\\\"),b=c.ensureSingle(r,\\\"g\\\",\\\"boundarylayer\\\"),_=c.ensureSingle(r,\\\"g\\\",\\\"labellayer\\\");r.style(\\\"opacity\\\",d.opacity),f(l,u,x,v,\\\"a\\\",v._gridlines),f(l,u,x,m,\\\"b\\\",m._gridlines),f(l,u,y,v,\\\"a\\\",v._minorgridlines),f(l,u,y,m,\\\"b\\\",m._minorgridlines),f(l,u,b,v,\\\"a-boundary\\\",v._boundarylines),f(l,u,b,m,\\\"b-boundary\\\",m._boundarylines);var w=h(t,l,u,d,i,_,v._labels,\\\"a-label\\\"),k=h(t,l,u,d,i,_,m._labels,\\\"b-label\\\");!function(t,e,r,n,i,a,o,l){var u,f,h,p,d=c.aggNums(Math.min,null,r.a),v=c.aggNums(Math.max,null,r.a),m=c.aggNums(Math.min,null,r.b),y=c.aggNums(Math.max,null,r.b);u=.5*(d+v),f=m,h=r.ab2xy(u,f,!0),p=r.dxyda_rough(u,f),void 0===o.angle&&c.extendFlat(o,s(r,i,a,h,r.dxydb_rough(u,f)));g(t,e,r,n,h,p,r.aaxis,i,a,o,\\\"a-title\\\"),u=d,f=.5*(m+y),h=r.ab2xy(u,f,!0),p=r.dxydb_rough(u,f),void 0===l.angle&&c.extendFlat(l,s(r,i,a,h,r.dxyda_rough(u,f)));g(t,e,r,n,h,p,r.baxis,i,a,l,\\\"b-title\\\")}(t,_,d,i,l,u,w,k),function(t,e,r,n,i){var s,l,u,f,h=r.select(\\\"#\\\"+t._clipPathId);h.size()||(h=r.append(\\\"clipPath\\\").classed(\\\"carpetclip\\\",!0));var p=c.ensureSingle(h,\\\"path\\\",\\\"carpetboundary\\\"),d=e.clipsegments,g=[];for(f=0;f<d.length;f++)s=d[f],l=a([],s.x,n.c2p),u=a([],s.y,i.c2p),g.push(o(l,u,s.bicubic));var v=\\\"M\\\"+g.join(\\\"L\\\")+\\\"Z\\\";h.attr(\\\"id\\\",t._clipPathId),p.attr(\\\"d\\\",v)}(d,i,p,l,u)})};var p=u.LINE_SPACING,d=(1-u.MID_SHIFT)/p+1;function g(t,e,r,a,o,c,u,f,h,g,v){var m=[];u.title.text&&m.push(u.title.text);var y=e.selectAll(\\\"text.\\\"+v).data(m),x=g.maxExtent;y.enter().append(\\\"text\\\").classed(v,!0),y.each(function(){var e=s(r,f,h,o,c);-1===[\\\"start\\\",\\\"both\\\"].indexOf(u.showticklabels)&&(x=0);var a=u.title.font.size;x+=a+u.title.offset;var v=(g.angle+(g.flip<0?180:0)-e.angle+450)%360,m=v>90&&v<270,y=n.select(this);y.text(u.title.text).call(l.convertToTspans,t),m&&(x=(-l.lineCount(y)+d)*p*a-x),y.attr(\\\"transform\\\",\\\"translate(\\\"+e.p[0]+\\\",\\\"+e.p[1]+\\\") rotate(\\\"+e.angle+\\\") translate(0,\\\"+x+\\\")\\\").classed(\\\"user-select-none\\\",!0).attr(\\\"text-anchor\\\",\\\"middle\\\").call(i.font,u.title.font)}),y.exit().remove()}},{\\\"../../components/drawing\\\":601,\\\"../../constants/alignment\\\":675,\\\"../../lib\\\":703,\\\"../../lib/svg_text_utils\\\":727,\\\"./makepath\\\":900,\\\"./map_1d_array\\\":901,\\\"./orient_text\\\":902,d3:157}],904:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./constants\\\"),i=t(\\\"../../lib/search\\\").findBin,a=t(\\\"./compute_control_points\\\"),o=t(\\\"./create_spline_evaluator\\\"),s=t(\\\"./create_i_derivative_evaluator\\\"),l=t(\\\"./create_j_derivative_evaluator\\\");e.exports=function(t){var e=t._a,r=t._b,c=e.length,u=r.length,f=t.aaxis,h=t.baxis,p=e[0],d=e[c-1],g=r[0],v=r[u-1],m=e[e.length-1]-e[0],y=r[r.length-1]-r[0],x=m*n.RELATIVE_CULL_TOLERANCE,b=y*n.RELATIVE_CULL_TOLERANCE;p-=x,d+=x,g-=b,v+=b,t.isVisible=function(t,e){return t>p&&t<d&&e>g&&e<v},t.isOccluded=function(t,e){return t<p||t>d||e<g||e>v},t.setScale=function(){var e=t._x,r=t._y,n=a(t._xctrl,t._yctrl,e,r,f.smoothing,h.smoothing);t._xctrl=n[0],t._yctrl=n[1],t.evalxy=o([t._xctrl,t._yctrl],c,u,f.smoothing,h.smoothing),t.dxydi=s([t._xctrl,t._yctrl],f.smoothing,h.smoothing),t.dxydj=l([t._xctrl,t._yctrl],f.smoothing,h.smoothing)},t.i2a=function(t){var r=Math.max(0,Math.floor(t[0]),c-2),n=t[0]-r;return(1-n)*e[r]+n*e[r+1]},t.j2b=function(t){var e=Math.max(0,Math.floor(t[1]),c-2),n=t[1]-e;return(1-n)*r[e]+n*r[e+1]},t.ij2ab=function(e){return[t.i2a(e[0]),t.j2b(e[1])]},t.a2i=function(t){var r=Math.max(0,Math.min(i(t,e),c-2)),n=e[r],a=e[r+1];return Math.max(0,Math.min(c-1,r+(t-n)/(a-n)))},t.b2j=function(t){var e=Math.max(0,Math.min(i(t,r),u-2)),n=r[e],a=r[e+1];return Math.max(0,Math.min(u-1,e+(t-n)/(a-n)))},t.ab2ij=function(e){return[t.a2i(e[0]),t.b2j(e[1])]},t.i2c=function(e,r){return t.evalxy([],e,r)},t.ab2xy=function(n,i,a){if(!a&&(n<e[0]||n>e[c-1]|i<r[0]||i>r[u-1]))return[!1,!1];var o=t.a2i(n),s=t.b2j(i),l=t.evalxy([],o,s);if(a){var f,h,p,d,g=0,v=0,m=[];n<e[0]?(f=0,h=0,g=(n-e[0])/(e[1]-e[0])):n>e[c-1]?(f=c-2,h=1,g=(n-e[c-1])/(e[c-1]-e[c-2])):h=o-(f=Math.max(0,Math.min(c-2,Math.floor(o)))),i<r[0]?(p=0,d=0,v=(i-r[0])/(r[1]-r[0])):i>r[u-1]?(p=u-2,d=1,v=(i-r[u-1])/(r[u-1]-r[u-2])):d=s-(p=Math.max(0,Math.min(u-2,Math.floor(s)))),g&&(t.dxydi(m,f,p,h,d),l[0]+=m[0]*g,l[1]+=m[1]*g),v&&(t.dxydj(m,f,p,h,d),l[0]+=m[0]*v,l[1]+=m[1]*v)}return l},t.c2p=function(t,e,r){return[e.c2p(t[0]),r.c2p(t[1])]},t.p2x=function(t,e,r){return[e.p2c(t[0]),r.p2c(t[1])]},t.dadi=function(t){var r=Math.max(0,Math.min(e.length-2,t));return e[r+1]-e[r]},t.dbdj=function(t){var e=Math.max(0,Math.min(r.length-2,t));return r[e+1]-r[e]},t.dxyda=function(e,r,n,i){var a=t.dxydi(null,e,r,n,i),o=t.dadi(e,n);return[a[0]/o,a[1]/o]},t.dxydb=function(e,r,n,i){var a=t.dxydj(null,e,r,n,i),o=t.dbdj(r,i);return[a[0]/o,a[1]/o]},t.dxyda_rough=function(e,r,n){var i=m*(n||.1),a=t.ab2xy(e+i,r,!0),o=t.ab2xy(e-i,r,!0);return[.5*(a[0]-o[0])/i,.5*(a[1]-o[1])/i]},t.dxydb_rough=function(e,r,n){var i=y*(n||.1),a=t.ab2xy(e,r+i,!0),o=t.ab2xy(e,r-i,!0);return[.5*(a[0]-o[0])/i,.5*(a[1]-o[1])/i]},t.dpdx=function(t){return t._m},t.dpdy=function(t){return t._m}}},{\\\"../../lib/search\\\":722,\\\"./compute_control_points\\\":892,\\\"./constants\\\":893,\\\"./create_i_derivative_evaluator\\\":894,\\\"./create_j_derivative_evaluator\\\":895,\\\"./create_spline_evaluator\\\":896}],905:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\");e.exports=function(t,e,r){var i,a,o,s=[],l=[],c=t[0].length,u=t.length;function f(e,r){var n,i=0,a=0;return e>0&&void 0!==(n=t[r][e-1])&&(a++,i+=n),e<c-1&&void 0!==(n=t[r][e+1])&&(a++,i+=n),r>0&&void 0!==(n=t[r-1][e])&&(a++,i+=n),r<u-1&&void 0!==(n=t[r+1][e])&&(a++,i+=n),i/Math.max(1,a)}var h,p,d,g,v,m,y,x,b,_,w,k=0;for(i=0;i<c;i++)for(a=0;a<u;a++)void 0===t[a][i]&&(s.push(i),l.push(a),t[a][i]=f(i,a)),k=Math.max(k,Math.abs(t[a][i]));if(!s.length)return t;var T=0,A=0,M=s.length;do{for(T=0,o=0;o<M;o++){i=s[o],a=l[o];var S,E,C,L,z,O,I=0,D=0;0===i?(C=e[z=Math.min(c-1,2)],L=e[1],S=t[a][z],D+=(E=t[a][1])+(E-S)*(e[0]-L)/(L-C),I++):i===c-1&&(C=e[z=Math.max(0,c-3)],L=e[c-2],S=t[a][z],D+=(E=t[a][c-2])+(E-S)*(e[c-1]-L)/(L-C),I++),(0===i||i===c-1)&&a>0&&a<u-1&&(h=r[a+1]-r[a],D+=((p=r[a]-r[a-1])*t[a+1][i]+h*t[a-1][i])/(p+h),I++),0===a?(C=r[O=Math.min(u-1,2)],L=r[1],S=t[O][i],D+=(E=t[1][i])+(E-S)*(r[0]-L)/(L-C),I++):a===u-1&&(C=r[O=Math.max(0,u-3)],L=r[u-2],S=t[O][i],D+=(E=t[u-2][i])+(E-S)*(r[u-1]-L)/(L-C),I++),(0===a||a===u-1)&&i>0&&i<c-1&&(h=e[i+1]-e[i],D+=((p=e[i]-e[i-1])*t[a][i+1]+h*t[a][i-1])/(p+h),I++),I?D/=I:(d=e[i+1]-e[i],g=e[i]-e[i-1],x=(v=r[a+1]-r[a])*(m=r[a]-r[a-1])*(v+m),D=((y=d*g*(d+g))*(m*t[a+1][i]+v*t[a-1][i])+x*(g*t[a][i+1]+d*t[a][i-1]))/(x*(g+d)+y*(m+v))),T+=(_=(b=D-t[a][i])/k)*_,w=I?0:.85,t[a][i]+=b*(1+w)}T=Math.sqrt(T)}while(A++<100&&T>1e-5);return n.log(\\\"Smoother converged to\\\",T,\\\"after\\\",A,\\\"iterations\\\"),t}},{\\\"../../lib\\\":703}],906:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\").isArray1D;e.exports=function(t,e,r){var i=r(\\\"x\\\"),a=i&&i.length,o=r(\\\"y\\\"),s=o&&o.length;if(!a&&!s)return!1;if(e._cheater=!i,a&&!n(i)||s&&!n(o))e._length=null;else{var l=a?i.length:1/0;s&&(l=Math.min(l,o.length)),e.a&&e.a.length&&(l=Math.min(l,e.a.length)),e.b&&e.b.length&&(l=Math.min(l,e.b.length)),e._length=l}return!0}},{\\\"../../lib\\\":703}],907:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/fx/hovertemplate_attributes\\\"),i=t(\\\"../scattergeo/attributes\\\"),a=t(\\\"../../components/colorscale/attributes\\\"),o=t(\\\"../../plots/attributes\\\"),s=t(\\\"../../lib/extend\\\").extendFlat,l=i.marker.line;e.exports=s({locations:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},locationmode:i.locationmode,z:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},text:s({},i.text,{}),hovertext:s({},i.hovertext,{}),marker:{line:{color:l.color,width:s({},l.width,{dflt:1}),editType:\\\"calc\\\"},opacity:{valType:\\\"number\\\",arrayOk:!0,min:0,max:1,dflt:1,editType:\\\"style\\\"},editType:\\\"calc\\\"},selected:{marker:{opacity:i.selected.marker.opacity,editType:\\\"plot\\\"},editType:\\\"plot\\\"},unselected:{marker:{opacity:i.unselected.marker.opacity,editType:\\\"plot\\\"},editType:\\\"plot\\\"},hoverinfo:s({},o.hoverinfo,{editType:\\\"calc\\\",flags:[\\\"location\\\",\\\"z\\\",\\\"text\\\",\\\"name\\\"]}),hovertemplate:n()},a(\\\"\\\",{cLetter:\\\"z\\\",editTypeOverride:\\\"calc\\\"}))},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plots/attributes\\\":748,\\\"../scattergeo/attributes\\\":1114}],908:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../constants/numerical\\\").BADNUM,a=t(\\\"../../components/colorscale/calc\\\"),o=t(\\\"../scatter/arrays_to_calcdata\\\"),s=t(\\\"../scatter/calc_selection\\\");e.exports=function(t,e){for(var r=e._length,l=new Array(r),c=0;c<r;c++){var u=l[c]={},f=e.locations[c],h=e.z[c];u.loc=\\\"string\\\"==typeof f?f:null,u.z=n(h)?h:i}return o(l,e),a(t,e,{vals:e.z,containerStr:\\\"\\\",cLetter:\\\"z\\\"}),s(l,e),l}},{\\\"../../components/colorscale/calc\\\":588,\\\"../../constants/numerical\\\":680,\\\"../scatter/arrays_to_calcdata\\\":1074,\\\"../scatter/calc_selection\\\":1077,\\\"fast-isnumeric\\\":224}],909:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../components/colorscale/defaults\\\"),a=t(\\\"./attributes\\\");e.exports=function(t,e,r,o){function s(r,i){return n.coerce(t,e,a,r,i)}var l=s(\\\"locations\\\"),c=s(\\\"z\\\");l&&l.length&&n.isArrayOrTypedArray(c)&&c.length?(e._length=Math.min(l.length,c.length),s(\\\"locationmode\\\"),s(\\\"text\\\"),s(\\\"hovertext\\\"),s(\\\"hovertemplate\\\"),s(\\\"marker.line.color\\\"),s(\\\"marker.line.width\\\"),s(\\\"marker.opacity\\\"),i(t,e,o,s,{prefix:\\\"\\\",cLetter:\\\"z\\\"}),n.coerceSelectionMarkerOpacity(e,s)):e.visible=!1}},{\\\"../../components/colorscale/defaults\\\":590,\\\"../../lib\\\":703,\\\"./attributes\\\":907}],910:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){return t.location=e.location,t.z=e.z,t}},{}],911:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/axes\\\"),i=t(\\\"./attributes\\\"),a=t(\\\"../../lib\\\").fillText;e.exports=function(t,e,r){var o,s,l,c,u=t.cd,f=u[0].trace,h=t.subplot;for(s=0;s<u.length;s++)if(c=!1,(o=u[s])._polygons){for(l=0;l<o._polygons.length;l++)o._polygons[l].contains([e,r])&&(c=!c),o._polygons[l].contains([e+360,r])&&(c=!c);if(c)break}if(c&&o)return t.x0=t.x1=t.xa.c2p(o.ct),t.y0=t.y1=t.ya.c2p(o.ct),t.index=o.index,t.location=o.loc,t.z=o.z,t.hovertemplate=o.hovertemplate,function(t,e,r,o){if(e.hovertemplate)return;var s=r.hi||e.hoverinfo,l=\\\"all\\\"===s?i.hoverinfo.flags:s.split(\\\"+\\\"),c=-1!==l.indexOf(\\\"name\\\"),u=-1!==l.indexOf(\\\"location\\\"),f=-1!==l.indexOf(\\\"z\\\"),h=-1!==l.indexOf(\\\"text\\\"),p=[];!c&&u?t.nameOverride=r.loc:(c&&(t.nameOverride=e.name),u&&p.push(r.loc));f&&p.push((d=r.z,n.tickText(o,o.c2l(d),\\\"hover\\\").text));var d;h&&a(r,e,p);t.extraText=p.join(\\\"<br>\\\")}(t,f,o,h.mockAxis),[t]}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"./attributes\\\":907}],912:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),colorbar:t(\\\"../heatmap/colorbar\\\"),calc:t(\\\"./calc\\\"),plot:t(\\\"./plot\\\"),style:t(\\\"./style\\\").style,styleOnSelect:t(\\\"./style\\\").styleOnSelect,hoverPoints:t(\\\"./hover\\\"),eventData:t(\\\"./event_data\\\"),selectPoints:t(\\\"./select\\\"),moduleType:\\\"trace\\\",name:\\\"choropleth\\\",basePlotModule:t(\\\"../../plots/geo\\\"),categories:[\\\"geo\\\",\\\"noOpacity\\\"],meta:{}}},{\\\"../../plots/geo\\\":781,\\\"../heatmap/colorbar\\\":975,\\\"./attributes\\\":907,\\\"./calc\\\":908,\\\"./defaults\\\":909,\\\"./event_data\\\":910,\\\"./hover\\\":911,\\\"./plot\\\":913,\\\"./select\\\":914,\\\"./style\\\":915}],913:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../lib/polygon\\\"),o=t(\\\"../../lib/topojson_utils\\\").getTopojsonFeatures,s=t(\\\"../../lib/geo_location_utils\\\").locationToFeature,l=t(\\\"./style\\\").style;function c(t,e){for(var r=t[0].trace,n=t.length,i=o(r,e),a=0;a<n;a++){var l=t[a],c=s(r.locationmode,l.loc,i);c?(l.geojson=c,l.ct=c.properties.ct,l.index=a,l._polygons=u(c)):l.geojson=null}}function u(t){var e,r,n,i,o=t.geometry,s=o.coordinates,l=t.id,c=[];function u(t){for(var e=0;e<t.length-1;e++)if(t[e][0]>0&&t[e+1][0]<0)return e;return null}switch(e=\\\"RUS\\\"===l||\\\"FJI\\\"===l?function(t){var e;if(null===u(t))e=t;else for(e=new Array(t.length),i=0;i<t.length;i++)e[i]=[t[i][0]<0?t[i][0]+360:t[i][0],t[i][1]];c.push(a.tester(e))}:\\\"ATA\\\"===l?function(t){var e=u(t);if(null===e)return c.push(a.tester(t));var r=new Array(t.length+1),n=0;for(i=0;i<t.length;i++)i>e?r[n++]=[t[i][0]+360,t[i][1]]:i===e?(r[n++]=t[i],r[n++]=[t[i][0],-90]):r[n++]=t[i];var o=a.tester(r);o.pts.pop(),c.push(o)}:function(t){c.push(a.tester(t))},o.type){case\\\"MultiPolygon\\\":for(r=0;r<s.length;r++)for(n=0;n<s[r].length;n++)e(s[r][n]);break;case\\\"Polygon\\\":for(r=0;r<s.length;r++)e(s[r])}return c}e.exports=function(t,e,r){for(var a=0;a<r.length;a++)c(r[a],e.topojson);var o=e.layers.backplot.select(\\\".choroplethlayer\\\");i.makeTraceGroups(o,r,\\\"trace choropleth\\\").each(function(e){var r=(e[0].node3=n.select(this)).selectAll(\\\"path.choroplethlocation\\\").data(i.identity);r.enter().append(\\\"path\\\").classed(\\\"choroplethlocation\\\",!0),r.exit().remove(),l(t,e)})}},{\\\"../../lib\\\":703,\\\"../../lib/geo_location_utils\\\":696,\\\"../../lib/polygon\\\":715,\\\"../../lib/topojson_utils\\\":730,\\\"./style\\\":915,d3:157}],914:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){var r,n,i,a,o,s=t.cd,l=t.xaxis,c=t.yaxis,u=[];if(!1===e)for(r=0;r<s.length;r++)s[r].selected=0;else for(r=0;r<s.length;r++)(i=(n=s[r]).ct)&&(a=l.c2p(i),o=c.c2p(i),e.contains([a,o],null,r,t)?(u.push({pointNumber:r,lon:i[0],lat:i[1]}),n.selected=1):n.selected=0);return u}},{}],915:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../components/color\\\"),a=t(\\\"../../components/drawing\\\"),o=t(\\\"../../components/colorscale\\\");function s(t,e){var r=e[0].trace,s=e[0].node3.selectAll(\\\".choroplethlocation\\\"),l=r.marker||{},c=l.line||{},u=o.makeColorScaleFuncFromTrace(r);s.each(function(t){n.select(this).attr(\\\"fill\\\",u(t.z)).call(i.stroke,t.mlc||c.color).call(a.dashLine,\\\"\\\",t.mlw||c.width||0).style(\\\"opacity\\\",l.opacity)}),a.selectedPointStyle(s,r,t)}e.exports={style:function(t,e){e&&s(t,e)},styleOnSelect:function(t,e){var r=e[0].node3,n=e[0].trace;n.selectedpoints?a.selectedPointStyle(r.selectAll(\\\".choroplethlocation\\\"),n,t):s(t,e)}}},{\\\"../../components/color\\\":580,\\\"../../components/colorscale\\\":592,\\\"../../components/drawing\\\":601,d3:157}],916:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale/attributes\\\"),i=t(\\\"../../components/fx/hovertemplate_attributes\\\"),a=t(\\\"../mesh3d/attributes\\\"),o=t(\\\"../../plots/attributes\\\"),s=t(\\\"../../lib/extend\\\").extendFlat,l={x:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},y:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},z:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},u:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},v:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},w:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},sizemode:{valType:\\\"enumerated\\\",values:[\\\"scaled\\\",\\\"absolute\\\"],editType:\\\"calc\\\",dflt:\\\"scaled\\\"},sizeref:{valType:\\\"number\\\",editType:\\\"calc\\\",min:0},anchor:{valType:\\\"enumerated\\\",editType:\\\"calc\\\",values:[\\\"tip\\\",\\\"tail\\\",\\\"cm\\\",\\\"center\\\"],dflt:\\\"cm\\\"},text:{valType:\\\"string\\\",dflt:\\\"\\\",arrayOk:!0,editType:\\\"calc\\\"},hovertext:{valType:\\\"string\\\",dflt:\\\"\\\",arrayOk:!0,editType:\\\"calc\\\"},hovertemplate:i({editType:\\\"calc\\\"},{keys:[\\\"norm\\\"]})};s(l,n(\\\"\\\",{colorAttr:\\\"u/v/w norm\\\",showScaleDflt:!0,editTypeOverride:\\\"calc\\\"}));[\\\"opacity\\\",\\\"lightposition\\\",\\\"lighting\\\"].forEach(function(t){l[t]=a[t]}),l.hoverinfo=s({},o.hoverinfo,{editType:\\\"calc\\\",flags:[\\\"x\\\",\\\"y\\\",\\\"z\\\",\\\"u\\\",\\\"v\\\",\\\"w\\\",\\\"norm\\\",\\\"text\\\",\\\"name\\\"],dflt:\\\"x+y+z+norm+text+name\\\"}),l.transforms=void 0,e.exports=l},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plots/attributes\\\":748,\\\"../mesh3d/attributes\\\":1017}],917:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale/calc\\\");e.exports=function(t,e){for(var r=e.u,i=e.v,a=e.w,o=Math.min(e.x.length,e.y.length,e.z.length,r.length,i.length,a.length),s=-1/0,l=1/0,c=0;c<o;c++){var u=r[c],f=i[c],h=a[c],p=Math.sqrt(u*u+f*f+h*h);s=Math.max(s,p),l=Math.min(l,p)}e._len=o,e._normMax=s,n(t,e,{vals:[l,s],containerStr:\\\"\\\",cLetter:\\\"c\\\"})}},{\\\"../../components/colorscale/calc\\\":588}],918:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-cone3d\\\"),i=t(\\\"gl-cone3d\\\").createConeMesh,a=t(\\\"../../lib\\\").simpleMap,o=t(\\\"../../lib/gl_format_color\\\").parseColorScale,s=t(\\\"../../components/colorscale\\\").extractOpts,l=t(\\\"../../plots/gl3d/zip3\\\");function c(t,e){this.scene=t,this.uid=e,this.mesh=null,this.data=null}var u=c.prototype;u.handlePick=function(t){if(t.object===this.mesh){var e=t.index=t.data.index,r=this.data.x[e],n=this.data.y[e],i=this.data.z[e],a=this.data.u[e],o=this.data.v[e],s=this.data.w[e];t.traceCoordinate=[r,n,i,a,o,s,Math.sqrt(a*a+o*o+s*s)];var l=this.data.hovertext||this.data.text;return Array.isArray(l)&&void 0!==l[e]?t.textLabel=l[e]:l&&(t.textLabel=l),!0}};var f={xaxis:0,yaxis:1,zaxis:2},h={tip:1,tail:0,cm:.25,center:.5},p={tip:1,tail:1,cm:.75,center:.5};function d(t,e){var r=t.fullSceneLayout,i=t.dataScale,c={};function u(t,e){var n=r[e],o=i[f[e]];return a(t,function(t){return n.d2l(t)*o})}c.vectors=l(u(e.u,\\\"xaxis\\\"),u(e.v,\\\"yaxis\\\"),u(e.w,\\\"zaxis\\\"),e._len),c.positions=l(u(e.x,\\\"xaxis\\\"),u(e.y,\\\"yaxis\\\"),u(e.z,\\\"zaxis\\\"),e._len);var d=s(e);c.colormap=o(e),c.vertexIntensityBounds=[d.min/e._normMax,d.max/e._normMax],c.coneOffset=h[e.anchor],\\\"scaled\\\"===e.sizemode?c.coneSize=e.sizeref||.5:c.coneSize=e.sizeref&&e._normMax?e.sizeref/e._normMax:.5;var g=n(c),v=e.lightposition;return g.lightPosition=[v.x,v.y,v.z],g.ambient=e.lighting.ambient,g.diffuse=e.lighting.diffuse,g.specular=e.lighting.specular,g.roughness=e.lighting.roughness,g.fresnel=e.lighting.fresnel,g.opacity=e.opacity,e._pad=p[e.anchor]*g.vectorScale*g.coneScale*e._normMax,g}u.update=function(t){this.data=t;var e=d(this.scene,t);this.mesh.update(e)},u.dispose=function(){this.scene.glplot.remove(this.mesh),this.mesh.dispose()},e.exports=function(t,e){var r=t.glplot.gl,n=d(t,e),a=i(r,n),o=new c(t,e.uid);return o.mesh=a,o.data=e,a._trace=o,t.glplot.add(a),o}},{\\\"../../components/colorscale\\\":592,\\\"../../lib\\\":703,\\\"../../lib/gl_format_color\\\":700,\\\"../../plots/gl3d/zip3\\\":802,\\\"gl-cone3d\\\":241}],919:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../components/colorscale/defaults\\\"),a=t(\\\"./attributes\\\");e.exports=function(t,e,r,o){function s(r,i){return n.coerce(t,e,a,r,i)}var l=s(\\\"u\\\"),c=s(\\\"v\\\"),u=s(\\\"w\\\"),f=s(\\\"x\\\"),h=s(\\\"y\\\"),p=s(\\\"z\\\");l&&l.length&&c&&c.length&&u&&u.length&&f&&f.length&&h&&h.length&&p&&p.length?(s(\\\"sizeref\\\"),s(\\\"sizemode\\\"),s(\\\"anchor\\\"),s(\\\"lighting.ambient\\\"),s(\\\"lighting.diffuse\\\"),s(\\\"lighting.specular\\\"),s(\\\"lighting.roughness\\\"),s(\\\"lighting.fresnel\\\"),s(\\\"lightposition.x\\\"),s(\\\"lightposition.y\\\"),s(\\\"lightposition.z\\\"),i(t,e,o,s,{prefix:\\\"\\\",cLetter:\\\"c\\\"}),s(\\\"text\\\"),s(\\\"hovertext\\\"),s(\\\"hovertemplate\\\"),e._length=null):e.visible=!1}},{\\\"../../components/colorscale/defaults\\\":590,\\\"../../lib\\\":703,\\\"./attributes\\\":916}],920:[function(t,e,r){\\\"use strict\\\";e.exports={moduleType:\\\"trace\\\",name:\\\"cone\\\",basePlotModule:t(\\\"../../plots/gl3d\\\"),categories:[\\\"gl3d\\\"],attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),colorbar:{min:\\\"cmin\\\",max:\\\"cmax\\\"},calc:t(\\\"./calc\\\"),plot:t(\\\"./convert\\\"),eventData:function(t,e){return t.norm=e.traceCoordinate[6],t},meta:{}}},{\\\"../../plots/gl3d\\\":791,\\\"./attributes\\\":916,\\\"./calc\\\":917,\\\"./convert\\\":918,\\\"./defaults\\\":919}],921:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../heatmap/attributes\\\"),i=t(\\\"../scatter/attributes\\\"),a=t(\\\"../../components/colorscale/attributes\\\"),o=t(\\\"../../components/drawing/attributes\\\").dash,s=t(\\\"../../plots/font_attributes\\\"),l=t(\\\"../../lib/extend\\\").extendFlat,c=t(\\\"../../constants/filter_ops\\\"),u=c.COMPARISON_OPS2,f=c.INTERVAL_OPS,h=i.line;e.exports=l({z:n.z,x:n.x,x0:n.x0,dx:n.dx,y:n.y,y0:n.y0,dy:n.dy,text:n.text,hovertext:n.hovertext,transpose:n.transpose,xtype:n.xtype,ytype:n.ytype,zhoverformat:n.zhoverformat,hovertemplate:n.hovertemplate,connectgaps:n.connectgaps,fillcolor:{valType:\\\"color\\\",editType:\\\"calc\\\"},autocontour:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\",impliedEdits:{\\\"contours.start\\\":void 0,\\\"contours.end\\\":void 0,\\\"contours.size\\\":void 0}},ncontours:{valType:\\\"integer\\\",dflt:15,min:1,editType:\\\"calc\\\"},contours:{type:{valType:\\\"enumerated\\\",values:[\\\"levels\\\",\\\"constraint\\\"],dflt:\\\"levels\\\",editType:\\\"calc\\\"},start:{valType:\\\"number\\\",dflt:null,editType:\\\"plot\\\",impliedEdits:{\\\"^autocontour\\\":!1}},end:{valType:\\\"number\\\",dflt:null,editType:\\\"plot\\\",impliedEdits:{\\\"^autocontour\\\":!1}},size:{valType:\\\"number\\\",dflt:null,min:0,editType:\\\"plot\\\",impliedEdits:{\\\"^autocontour\\\":!1}},coloring:{valType:\\\"enumerated\\\",values:[\\\"fill\\\",\\\"heatmap\\\",\\\"lines\\\",\\\"none\\\"],dflt:\\\"fill\\\",editType:\\\"calc\\\"},showlines:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"plot\\\"},showlabels:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"plot\\\"},labelfont:s({editType:\\\"plot\\\",colorEditType:\\\"style\\\"}),labelformat:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"plot\\\"},operation:{valType:\\\"enumerated\\\",values:[].concat(u).concat(f),dflt:\\\"=\\\",editType:\\\"calc\\\"},value:{valType:\\\"any\\\",dflt:0,editType:\\\"calc\\\"},editType:\\\"calc\\\",impliedEdits:{autocontour:!1}},line:{color:l({},h.color,{editType:\\\"style+colorbars\\\"}),width:l({},h.width,{editType:\\\"style+colorbars\\\"}),dash:o,smoothing:l({},h.smoothing,{}),editType:\\\"plot\\\"}},a(\\\"\\\",{cLetter:\\\"z\\\",autoColorDflt:!1,editTypeOverride:\\\"calc\\\"}))},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/drawing/attributes\\\":600,\\\"../../constants/filter_ops\\\":676,\\\"../../lib/extend\\\":693,\\\"../../plots/font_attributes\\\":777,\\\"../heatmap/attributes\\\":972,\\\"../scatter/attributes\\\":1075}],922:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale\\\"),i=t(\\\"../heatmap/calc\\\"),a=t(\\\"./set_contours\\\"),o=t(\\\"./end_plus\\\");e.exports=function(t,e){var r=i(t,e),s=r[0].z;a(e,s);var l,c=e.contours,u=n.extractOpts(e);if(\\\"heatmap\\\"===c.coloring&&u.auto&&!1===e.autocontour){var f=c.start,h=o(c),p=c.size||1,d=Math.floor((h-f)/p)+1;isFinite(p)||(p=1,d=1);var g=f-p/2;l=[g,g+d*p]}else l=s;return n.calc(t,e,{vals:l,cLetter:\\\"z\\\"}),r}},{\\\"../../components/colorscale\\\":592,\\\"../heatmap/calc\\\":973,\\\"./end_plus\\\":932,\\\"./set_contours\\\":940}],923:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,n){var i,a,o,s=t[0],l=s.x.length,c=s.y.length,u=s.z,f=n.contours,h=-1/0,p=1/0;for(i=0;i<c;i++)p=Math.min(p,u[i][0]),p=Math.min(p,u[i][l-1]),h=Math.max(h,u[i][0]),h=Math.max(h,u[i][l-1]);for(i=1;i<l-1;i++)p=Math.min(p,u[0][i]),p=Math.min(p,u[c-1][i]),h=Math.max(h,u[0][i]),h=Math.max(h,u[c-1][i]);switch(s.prefixBoundary=!1,e){case\\\">\\\":f.value>h&&(s.prefixBoundary=!0);break;case\\\"<\\\":f.value<p&&(s.prefixBoundary=!0);break;case\\\"[]\\\":a=Math.min.apply(null,f.value),((o=Math.max.apply(null,f.value))<p||a>h)&&(s.prefixBoundary=!0);break;case\\\"][\\\":a=Math.min.apply(null,f.value),o=Math.max.apply(null,f.value),a<p&&o>h&&(s.prefixBoundary=!0)}}},{}],924:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale\\\").extractOpts,i=t(\\\"./make_color_map\\\"),a=t(\\\"./end_plus\\\");e.exports={min:\\\"zmin\\\",max:\\\"zmax\\\",calc:function(t,e,r){var o=e.contours,s=e.line,l=o.size||1,c=o.coloring,u=i(e,{isColorbar:!0});if(\\\"heatmap\\\"===c){var f=n(e);r._fillgradient=e.colorscale,r._zrange=[f.min,f.max]}else\\\"fill\\\"===c&&(r._fillcolor=u);r._line={color:\\\"lines\\\"===c?u:s.color,width:!1!==o.showlines?s.width:0,dash:s.dash},r._levels={start:o.start,end:a(o),size:l}}}},{\\\"../../components/colorscale\\\":592,\\\"./end_plus\\\":932,\\\"./make_color_map\\\":937}],925:[function(t,e,r){\\\"use strict\\\";e.exports={BOTTOMSTART:[1,9,13,104,713],TOPSTART:[4,6,7,104,713],LEFTSTART:[8,12,14,208,1114],RIGHTSTART:[2,3,11,208,1114],NEWDELTA:[null,[-1,0],[0,-1],[-1,0],[1,0],null,[0,-1],[-1,0],[0,1],[0,1],null,[0,1],[1,0],[1,0],[0,-1]],CHOOSESADDLE:{104:[4,1],208:[2,8],713:[7,13],1114:[11,14]},SADDLEREMAINDER:{1:4,2:8,4:1,7:13,8:2,11:14,13:7,14:11},LABELDISTANCE:2,LABELINCREASE:10,LABELMIN:3,LABELMAX:10,LABELOPTIMIZER:{EDGECOST:1,ANGLECOST:1,NEIGHBORCOST:5,SAMELEVELFACTOR:10,SAMELEVELDISTANCE:5,MAXCOST:100,INITIALSEARCHPOINTS:10,ITERATIONS:5}}},{}],926:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"./label_defaults\\\"),a=t(\\\"../../components/color\\\"),o=a.addOpacity,s=a.opacity,l=t(\\\"../../constants/filter_ops\\\"),c=l.CONSTRAINT_REDUCTION,u=l.COMPARISON_OPS2;e.exports=function(t,e,r,a,l,f){var h,p,d,g=e.contours,v=r(\\\"contours.operation\\\");(g._operation=c[v],function(t,e){var r;-1===u.indexOf(e.operation)?(t(\\\"contours.value\\\",[0,1]),Array.isArray(e.value)?e.value.length>2?e.value=e.value.slice(2):0===e.length?e.value=[0,1]:e.length<2?(r=parseFloat(e.value[0]),e.value=[r,r+1]):e.value=[parseFloat(e.value[0]),parseFloat(e.value[1])]:n(e.value)&&(r=parseFloat(e.value),e.value=[r,r+1])):(t(\\\"contours.value\\\",0),n(e.value)||(Array.isArray(e.value)?e.value=parseFloat(e.value[0]):e.value=0))}(r,g),\\\"=\\\"===v?h=g.showlines=!0:(h=r(\\\"contours.showlines\\\"),d=r(\\\"fillcolor\\\",o((t.line||{}).color||l,.5))),h)&&(p=r(\\\"line.color\\\",d&&s(d)?o(e.fillcolor,1):l),r(\\\"line.width\\\",2),r(\\\"line.dash\\\"));r(\\\"line.smoothing\\\"),i(r,a,p,f)}},{\\\"../../components/color\\\":580,\\\"../../constants/filter_ops\\\":676,\\\"./label_defaults\\\":936,\\\"fast-isnumeric\\\":224}],927:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../constants/filter_ops\\\"),i=t(\\\"fast-isnumeric\\\");function a(t,e){var r,a=Array.isArray(e);function o(t){return i(t)?+t:null}return-1!==n.COMPARISON_OPS2.indexOf(t)?r=o(a?e[0]:e):-1!==n.INTERVAL_OPS.indexOf(t)?r=a?[o(e[0]),o(e[1])]:[o(e),o(e)]:-1!==n.SET_OPS.indexOf(t)&&(r=a?e.map(o):[o(e)]),r}function o(t){return function(e){e=a(t,e);var r=Math.min(e[0],e[1]),n=Math.max(e[0],e[1]);return{start:r,end:n,size:n-r}}}function s(t){return function(e){return{start:e=a(t,e),end:1/0,size:1/0}}}e.exports={\\\"[]\\\":o(\\\"[]\\\"),\\\"][\\\":o(\\\"][\\\"),\\\">\\\":s(\\\">\\\"),\\\"<\\\":s(\\\"<\\\"),\\\"=\\\":s(\\\"=\\\")}},{\\\"../../constants/filter_ops\\\":676,\\\"fast-isnumeric\\\":224}],928:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,n){var i=n(\\\"contours.start\\\"),a=n(\\\"contours.end\\\"),o=!1===i||!1===a,s=r(\\\"contours.size\\\");!(o?e.autocontour=!0:r(\\\"autocontour\\\",!1))&&s||r(\\\"ncontours\\\")}},{}],929:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\");function i(t){return n.extendFlat({},t,{edgepaths:n.extendDeep([],t.edgepaths),paths:n.extendDeep([],t.paths)})}e.exports=function(t,e){var r,a,o,s=function(t){return t.reverse()},l=function(t){return t};switch(e){case\\\"=\\\":case\\\"<\\\":return t;case\\\">\\\":for(1!==t.length&&n.warn(\\\"Contour data invalid for the specified inequality operation.\\\"),a=t[0],r=0;r<a.edgepaths.length;r++)a.edgepaths[r]=s(a.edgepaths[r]);for(r=0;r<a.paths.length;r++)a.paths[r]=s(a.paths[r]);return t;case\\\"][\\\":var c=s;s=l,l=c;case\\\"[]\\\":for(2!==t.length&&n.warn(\\\"Contour data invalid for the specified inequality range operation.\\\"),a=i(t[0]),o=i(t[1]),r=0;r<a.edgepaths.length;r++)a.edgepaths[r]=s(a.edgepaths[r]);for(r=0;r<a.paths.length;r++)a.paths[r]=s(a.paths[r]);for(;o.edgepaths.length;)a.edgepaths.push(l(o.edgepaths.shift()));for(;o.paths.length;)a.paths.push(l(o.paths.shift()));return[a]}}},{\\\"../../lib\\\":703}],930:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../heatmap/xyz_defaults\\\"),a=t(\\\"./constraint_defaults\\\"),o=t(\\\"./contours_defaults\\\"),s=t(\\\"./style_defaults\\\"),l=t(\\\"./attributes\\\");e.exports=function(t,e,r,c){function u(r,i){return n.coerce(t,e,l,r,i)}if(i(t,e,u,c)){u(\\\"text\\\"),u(\\\"hovertext\\\"),u(\\\"hovertemplate\\\");var f=\\\"constraint\\\"===u(\\\"contours.type\\\");u(\\\"connectgaps\\\",n.isArray1D(e.z)),f?a(t,e,u,c,r):(o(t,e,u,function(r){return n.coerce2(t,e,l,r)}),s(t,e,u,c))}else e.visible=!1}},{\\\"../../lib\\\":703,\\\"../heatmap/xyz_defaults\\\":986,\\\"./attributes\\\":921,\\\"./constraint_defaults\\\":926,\\\"./contours_defaults\\\":928,\\\"./style_defaults\\\":942}],931:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./constraint_mapping\\\"),a=t(\\\"./end_plus\\\");e.exports=function(t,e,r){for(var o=\\\"constraint\\\"===t.type?i[t._operation](t.value):t,s=o.size,l=[],c=a(o),u=r.trace._carpetTrace,f=u?{xaxis:u.aaxis,yaxis:u.baxis,x:r.a,y:r.b}:{xaxis:e.xaxis,yaxis:e.yaxis,x:r.x,y:r.y},h=o.start;h<c;h+=s)if(l.push(n.extendFlat({level:h,crossings:{},starts:[],edgepaths:[],paths:[],z:r.z,smoothing:r.trace.line.smoothing},f)),l.length>1e3){n.warn(\\\"Too many contours, clipping at 1000\\\",t);break}return l}},{\\\"../../lib\\\":703,\\\"./constraint_mapping\\\":927,\\\"./end_plus\\\":932}],932:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){return t.end+t.size/1e6}},{}],933:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./constants\\\");function a(t,e,r,n){return Math.abs(t[0]-e[0])<r&&Math.abs(t[1]-e[1])<n}function o(t,e,r,o,l){var c,u=e.join(\\\",\\\"),f=u,h=t.crossings[f],p=function(t,e,r){var n=0,a=0;t>20&&e?208===t||1114===t?n=0===r[0]?1:-1:a=0===r[1]?1:-1:-1!==i.BOTTOMSTART.indexOf(t)?a=1:-1!==i.LEFTSTART.indexOf(t)?n=1:-1!==i.TOPSTART.indexOf(t)?a=-1:n=-1;return[n,a]}(h,r,e),d=[s(t,e,[-p[0],-p[1]])],g=p.join(\\\",\\\"),v=t.z.length,m=t.z[0].length;for(c=0;c<1e4;c++){if(h>20?(h=i.CHOOSESADDLE[h][(p[0]||p[1])<0?0:1],t.crossings[f]=i.SADDLEREMAINDER[h]):delete t.crossings[f],!(p=i.NEWDELTA[h])){n.log(\\\"Found bad marching index:\\\",h,e,t.level);break}d.push(s(t,e,p)),e[0]+=p[0],e[1]+=p[1],a(d[d.length-1],d[d.length-2],o,l)&&d.pop(),f=e.join(\\\",\\\");var y=p[0]&&(e[0]<0||e[0]>m-2)||p[1]&&(e[1]<0||e[1]>v-2);if(f===u&&p.join(\\\",\\\")===g||r&&y)break;h=t.crossings[f]}1e4===c&&n.log(\\\"Infinite loop in contour?\\\");var x,b,_,w,k,T,A,M,S,E,C,L,z,O,I,D=a(d[0],d[d.length-1],o,l),P=0,R=.2*t.smoothing,F=[],B=0;for(c=1;c<d.length;c++)L=d[c],z=d[c-1],void 0,void 0,O=L[2]-z[2],I=L[3]-z[3],P+=A=Math.sqrt(O*O+I*I),F.push(A);var N=P/F.length*R;function j(t){return d[t%d.length]}for(c=d.length-2;c>=B;c--)if((x=F[c])<N){for(_=0,b=c-1;b>=B&&x+F[b]<N;b--)x+=F[b];if(D&&c===d.length-2)for(_=0;_<b&&x+F[_]<N;_++)x+=F[_];k=c-b+_+1,T=Math.floor((c+b+_+2)/2),w=D||c!==d.length-2?D||-1!==b?k%2?j(T):[(j(T)[0]+j(T+1)[0])/2,(j(T)[1]+j(T+1)[1])/2]:d[0]:d[d.length-1],d.splice(b+1,c-b+1,w),c=b+1,_&&(B=_),D&&(c===d.length-2?d[_]=d[d.length-1]:0===c&&(d[d.length-1]=d[0]))}for(d.splice(0,B),c=0;c<d.length;c++)d[c].length=2;if(!(d.length<2))if(D)d.pop(),t.paths.push(d);else{r||n.log(\\\"Unclosed interior contour?\\\",t.level,u,d.join(\\\"L\\\"));var V=!1;for(M=0;M<t.edgepaths.length;M++)if(E=t.edgepaths[M],!V&&a(E[0],d[d.length-1],o,l)){d.pop(),V=!0;var U=!1;for(S=0;S<t.edgepaths.length;S++)if(a((C=t.edgepaths[S])[C.length-1],d[0],o,l)){U=!0,d.shift(),t.edgepaths.splice(M,1),S===M?t.paths.push(d.concat(C)):(S>M&&S--,t.edgepaths[S]=C.concat(d,E));break}U||(t.edgepaths[M]=d.concat(E))}for(M=0;M<t.edgepaths.length&&!V;M++)a((E=t.edgepaths[M])[E.length-1],d[0],o,l)&&(d.shift(),t.edgepaths[M]=E.concat(d),V=!0);V||t.edgepaths.push(d)}}function s(t,e,r){var n=e[0]+Math.max(r[0],0),i=e[1]+Math.max(r[1],0),a=t.z[i][n],o=t.xaxis,s=t.yaxis;if(r[1]){var l=(t.level-a)/(t.z[i][n+1]-a);return[o.c2p((1-l)*t.x[n]+l*t.x[n+1],!0),s.c2p(t.y[i],!0),n+l,i]}var c=(t.level-a)/(t.z[i+1][n]-a);return[o.c2p(t.x[n],!0),s.c2p((1-c)*t.y[i]+c*t.y[i+1],!0),n,i+c]}e.exports=function(t,e,r){var i,a,s,l;for(e=e||.01,r=r||.01,a=0;a<t.length;a++){for(s=t[a],l=0;l<s.starts.length;l++)o(s,s.starts[l],\\\"edge\\\",e,r);for(i=0;Object.keys(s.crossings).length&&i<1e4;)i++,o(s,Object.keys(s.crossings)[0].split(\\\",\\\").map(Number),void 0,e,r);1e4===i&&n.log(\\\"Infinite loop in contour?\\\")}}},{\\\"../../lib\\\":703,\\\"./constants\\\":925}],934:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/color\\\"),i=t(\\\"../heatmap/hover\\\");e.exports=function(t,e,r,a,o){var s=i(t,e,r,a,o,!0);return s&&s.forEach(function(t){var e=t.trace;\\\"constraint\\\"===e.contours.type&&(e.fillcolor&&n.opacity(e.fillcolor)?t.color=n.addOpacity(e.fillcolor,1):e.contours.showlines&&n.opacity(e.line.color)&&(t.color=n.addOpacity(e.line.color,1)))}),s}},{\\\"../../components/color\\\":580,\\\"../heatmap/hover\\\":979}],935:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),calc:t(\\\"./calc\\\"),plot:t(\\\"./plot\\\").plot,style:t(\\\"./style\\\"),colorbar:t(\\\"./colorbar\\\"),hoverPoints:t(\\\"./hover\\\"),moduleType:\\\"trace\\\",name:\\\"contour\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"cartesian\\\",\\\"svg\\\",\\\"2dMap\\\",\\\"contour\\\",\\\"showLegend\\\"],meta:{}}},{\\\"../../plots/cartesian\\\":762,\\\"./attributes\\\":921,\\\"./calc\\\":922,\\\"./colorbar\\\":924,\\\"./defaults\\\":930,\\\"./hover\\\":934,\\\"./plot\\\":939,\\\"./style\\\":941}],936:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\");e.exports=function(t,e,r,i){if(i||(i={}),t(\\\"contours.showlabels\\\")){var a=e.font;n.coerceFont(t,\\\"contours.labelfont\\\",{family:a.family,size:a.size,color:r}),t(\\\"contours.labelformat\\\")}!1!==i.hasHover&&t(\\\"zhoverformat\\\")}},{\\\"../../lib\\\":703}],937:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../components/colorscale\\\"),a=t(\\\"./end_plus\\\");e.exports=function(t){var e=t.contours,r=e.start,o=a(e),s=e.size||1,l=Math.floor((o-r)/s)+1,c=\\\"lines\\\"===e.coloring?0:1,u=i.extractOpts(t);isFinite(s)||(s=1,l=1);var f,h,p=u.reversescale?i.flipScale(u.colorscale):u.colorscale,d=p.length,g=new Array(d),v=new Array(d);if(\\\"heatmap\\\"===e.coloring){var m=u.min,y=u.max;for(h=0;h<d;h++)f=p[h],g[h]=f[0]*(y-m)+m,v[h]=f[1];var x=n.extent([m,y,e.start,e.start+s*(l-1)]),b=x[m<y?0:1],_=x[m<y?1:0];b!==m&&(g.splice(0,0,b),v.splice(0,0,v[0])),_!==y&&(g.push(_),v.push(v[v.length-1]))}else for(h=0;h<d;h++)f=p[h],g[h]=(f[0]*(l+c-1)-c/2)*s+r,v[h]=f[1];return i.makeColorScaleFunc({domain:g,range:v},{noNumericCheck:!0})}},{\\\"../../components/colorscale\\\":592,\\\"./end_plus\\\":932,d3:157}],938:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./constants\\\");function i(t,e){var r=(e[0][0]>t?0:1)+(e[0][1]>t?0:2)+(e[1][1]>t?0:4)+(e[1][0]>t?0:8);return 5===r||10===r?t>(e[0][0]+e[0][1]+e[1][0]+e[1][1])/4?5===r?713:1114:5===r?104:208:15===r?0:r}e.exports=function(t){var e,r,a,o,s,l,c,u,f,h=t[0].z,p=h.length,d=h[0].length,g=2===p||2===d;for(r=0;r<p-1;r++)for(o=[],0===r&&(o=o.concat(n.BOTTOMSTART)),r===p-2&&(o=o.concat(n.TOPSTART)),e=0;e<d-1;e++)for(a=o.slice(),0===e&&(a=a.concat(n.LEFTSTART)),e===d-2&&(a=a.concat(n.RIGHTSTART)),s=e+\\\",\\\"+r,l=[[h[r][e],h[r][e+1]],[h[r+1][e],h[r+1][e+1]]],f=0;f<t.length;f++)(c=i((u=t[f]).level,l))&&(u.crossings[s]=c,-1!==a.indexOf(c)&&(u.starts.push([e,r]),g&&-1!==a.indexOf(c,a.indexOf(c)+1)&&u.starts.push([e,r])))}},{\\\"./constants\\\":925}],939:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../components/drawing\\\"),o=t(\\\"../../lib/svg_text_utils\\\"),s=t(\\\"../../plots/cartesian/axes\\\"),l=t(\\\"../../plots/cartesian/set_convert\\\"),c=t(\\\"../heatmap/plot\\\"),u=t(\\\"./make_crossings\\\"),f=t(\\\"./find_all_paths\\\"),h=t(\\\"./empty_pathinfo\\\"),p=t(\\\"./convert_to_constraints\\\"),d=t(\\\"./close_boundaries\\\"),g=t(\\\"./constants\\\"),v=g.LABELOPTIMIZER;function m(t,e){var r,n,o,s,l,c,u,f=function(t,e){var r=t.prefixBoundary;if(void 0===r){var n=Math.min(t.z[0][0],t.z[0][1]);r=!t.edgepaths.length&&n>t.level}return r?\\\"M\\\"+e.join(\\\"L\\\")+\\\"Z\\\":\\\"\\\"}(t,e),h=0,p=t.edgepaths.map(function(t,e){return e}),d=!0;function g(t){return Math.abs(t[1]-e[2][1])<.01}function v(t){return Math.abs(t[0]-e[0][0])<.01}function m(t){return Math.abs(t[0]-e[2][0])<.01}for(;p.length;){for(c=a.smoothopen(t.edgepaths[h],t.smoothing),f+=d?c:c.replace(/^M/,\\\"L\\\"),p.splice(p.indexOf(h),1),r=t.edgepaths[h][t.edgepaths[h].length-1],s=-1,o=0;o<4;o++){if(!r){i.log(\\\"Missing end?\\\",h,t);break}for(u=r,Math.abs(u[1]-e[0][1])<.01&&!m(r)?n=e[1]:v(r)?n=e[0]:g(r)?n=e[3]:m(r)&&(n=e[2]),l=0;l<t.edgepaths.length;l++){var y=t.edgepaths[l][0];Math.abs(r[0]-n[0])<.01?Math.abs(r[0]-y[0])<.01&&(y[1]-r[1])*(n[1]-y[1])>=0&&(n=y,s=l):Math.abs(r[1]-n[1])<.01?Math.abs(r[1]-y[1])<.01&&(y[0]-r[0])*(n[0]-y[0])>=0&&(n=y,s=l):i.log(\\\"endpt to newendpt is not vert. or horz.\\\",r,n,y)}if(r=n,s>=0)break;f+=\\\"L\\\"+n}if(s===t.edgepaths.length){i.log(\\\"unclosed perimeter path\\\");break}h=s,(d=-1===p.indexOf(h))&&(h=p[0],f+=\\\"Z\\\")}for(h=0;h<t.paths.length;h++)f+=a.smoothclosed(t.paths[h],t.smoothing);return f}function y(t,e,r,n){var a=e.width/2,o=e.height/2,s=t.x,l=t.y,c=t.theta,u=Math.cos(c)*a,f=Math.sin(c)*a,h=(s>n.center?n.right-s:s-n.left)/(u+Math.abs(Math.sin(c)*o)),p=(l>n.middle?n.bottom-l:l-n.top)/(Math.abs(f)+Math.cos(c)*o);if(h<1||p<1)return 1/0;var d=v.EDGECOST*(1/(h-1)+1/(p-1));d+=v.ANGLECOST*c*c;for(var g=s-u,m=l-f,y=s+u,x=l+f,b=0;b<r.length;b++){var _=r[b],w=Math.cos(_.theta)*_.width/2,k=Math.sin(_.theta)*_.width/2,T=2*i.segmentDistance(g,m,y,x,_.x-w,_.y-k,_.x+w,_.y+k)/(e.height+_.height),A=_.level===e.level,M=A?v.SAMELEVELDISTANCE:1;if(T<=M)return 1/0;d+=v.NEIGHBORCOST*(A?v.SAMELEVELFACTOR:1)/(T-M)}return d}r.plot=function(t,e,o,s){var l=e.xaxis,v=e.yaxis;i.makeTraceGroups(s,o,\\\"contour\\\").each(function(o){var s=n.select(this),y=o[0],x=y.trace,b=y.x,_=y.y,w=x.contours,k=h(w,e,y),T=i.ensureSingle(s,\\\"g\\\",\\\"heatmapcoloring\\\"),A=[];\\\"heatmap\\\"===w.coloring&&(A=[o]),c(t,e,A,T),u(k),f(k);var M=l.c2p(b[0],!0),S=l.c2p(b[b.length-1],!0),E=v.c2p(_[0],!0),C=v.c2p(_[_.length-1],!0),L=[[M,C],[S,C],[S,E],[M,E]],z=k;\\\"constraint\\\"===w.type&&(z=p(k,w._operation),d(z,w._operation,L,x)),function(t,e,r){var n=i.ensureSingle(t,\\\"g\\\",\\\"contourbg\\\").selectAll(\\\"path\\\").data(\\\"fill\\\"===r.coloring?[0]:[]);n.enter().append(\\\"path\\\"),n.exit().remove(),n.attr(\\\"d\\\",\\\"M\\\"+e.join(\\\"L\\\")+\\\"Z\\\").style(\\\"stroke\\\",\\\"none\\\")}(s,L,w),function(t,e,r,a){var o=i.ensureSingle(t,\\\"g\\\",\\\"contourfill\\\").selectAll(\\\"path\\\").data(\\\"fill\\\"===a.coloring||\\\"constraint\\\"===a.type&&\\\"=\\\"!==a._operation?e:[]);o.enter().append(\\\"path\\\"),o.exit().remove(),o.each(function(t){var e=m(t,r);e?n.select(this).attr(\\\"d\\\",e).style(\\\"stroke\\\",\\\"none\\\"):n.select(this).remove()})}(s,z,L,w),function(t,e,o,s,l){var c=i.ensureSingle(t,\\\"g\\\",\\\"contourlines\\\"),u=!1!==l.showlines,f=l.showlabels,h=u&&f,p=r.createLines(c,u||f,e),d=r.createLineClip(c,h,o,s.trace.uid),v=t.selectAll(\\\"g.contourlabels\\\").data(f?[0]:[]);if(v.exit().remove(),v.enter().append(\\\"g\\\").classed(\\\"contourlabels\\\",!0),f){var m=[],y=[];i.clearLocationCache();var x=r.labelFormatter(l,s.t.cb,o._fullLayout),b=a.tester.append(\\\"text\\\").attr(\\\"data-notex\\\",1).call(a.font,l.labelfont),_=e[0].xaxis,w=e[0].yaxis,k=_._length,T=w._length,A=_.range,M=w.range,S=i.aggNums(Math.min,null,s.x),E=i.aggNums(Math.max,null,s.x),C=i.aggNums(Math.min,null,s.y),L=i.aggNums(Math.max,null,s.y),z=Math.max(_.c2p(S,!0),0),O=Math.min(_.c2p(E,!0),k),I=Math.max(w.c2p(L,!0),0),D=Math.min(w.c2p(C,!0),T),P={};A[0]<A[1]?(P.left=z,P.right=O):(P.left=O,P.right=z),M[0]<M[1]?(P.top=I,P.bottom=D):(P.top=D,P.bottom=I),P.middle=(P.top+P.bottom)/2,P.center=(P.left+P.right)/2,m.push([[P.left,P.top],[P.right,P.top],[P.right,P.bottom],[P.left,P.bottom]]);var R=Math.sqrt(k*k+T*T),F=g.LABELDISTANCE*R/Math.max(1,e.length/g.LABELINCREASE);p.each(function(t){var e=r.calcTextOpts(t.level,x,b,o);n.select(this).selectAll(\\\"path\\\").each(function(){var t=i.getVisibleSegment(this,P,e.height/2);if(t&&!(t.len<(e.width+e.height)*g.LABELMIN))for(var n=Math.min(Math.ceil(t.len/F),g.LABELMAX),a=0;a<n;a++){var o=r.findBestTextLocation(this,t,e,y,P);if(!o)break;r.addLabelData(o,e,y,m)}})}),b.remove(),r.drawLabels(v,y,o,d,h?m:null)}f&&!u&&p.remove()}(s,k,t,y,w),function(t,e,r,n,o){var s=r._fullLayout._clips,l=\\\"clip\\\"+n.trace.uid,c=s.selectAll(\\\"#\\\"+l).data(n.trace.connectgaps?[]:[0]);if(c.enter().append(\\\"clipPath\\\").classed(\\\"contourclip\\\",!0).attr(\\\"id\\\",l),c.exit().remove(),!1===n.trace.connectgaps){var h={level:.9,crossings:{},starts:[],edgepaths:[],paths:[],xaxis:e.xaxis,yaxis:e.yaxis,x:n.x,y:n.y,z:function(t){var e,r,n=t.trace._emptypoints,i=[],a=t.z.length,o=t.z[0].length,s=[];for(e=0;e<o;e++)s.push(1);for(e=0;e<a;e++)i.push(s.slice());for(e=0;e<n.length;e++)r=n[e],i[r[0]][r[1]]=0;return t.zmask=i,i}(n),smoothing:0};u([h]),f([h]);var p=m(h,o),d=i.ensureSingle(c,\\\"path\\\",\\\"\\\");d.attr(\\\"d\\\",p)}else l=null;a.setClipUrl(t,l,r)}(s,e,t,y,L)})},r.createLines=function(t,e,r){var n=r[0].smoothing,i=t.selectAll(\\\"g.contourlevel\\\").data(e?r:[]);if(i.exit().remove(),i.enter().append(\\\"g\\\").classed(\\\"contourlevel\\\",!0),e){var o=i.selectAll(\\\"path.openline\\\").data(function(t){return t.pedgepaths||t.edgepaths});o.exit().remove(),o.enter().append(\\\"path\\\").classed(\\\"openline\\\",!0),o.attr(\\\"d\\\",function(t){return a.smoothopen(t,n)}).style(\\\"stroke-miterlimit\\\",1).style(\\\"vector-effect\\\",\\\"non-scaling-stroke\\\");var s=i.selectAll(\\\"path.closedline\\\").data(function(t){return t.ppaths||t.paths});s.exit().remove(),s.enter().append(\\\"path\\\").classed(\\\"closedline\\\",!0),s.attr(\\\"d\\\",function(t){return a.smoothclosed(t,n)}).style(\\\"stroke-miterlimit\\\",1).style(\\\"vector-effect\\\",\\\"non-scaling-stroke\\\")}return i},r.createLineClip=function(t,e,r,n){var i=e?\\\"clipline\\\"+n:null,o=r._fullLayout._clips.selectAll(\\\"#\\\"+i).data(e?[0]:[]);return o.exit().remove(),o.enter().append(\\\"clipPath\\\").classed(\\\"contourlineclip\\\",!0).attr(\\\"id\\\",i),a.setClipUrl(t,i,r),o},r.labelFormatter=function(t,e,r){if(t.labelformat)return r._d3locale.numberFormat(t.labelformat);var n;if(e)n=e.axis;else{if(n={type:\\\"linear\\\",_id:\\\"ycontour\\\",showexponent:\\\"all\\\",exponentformat:\\\"B\\\"},\\\"constraint\\\"===t.type){var i=t.value;Array.isArray(i)?n.range=[i[0],i[i.length-1]]:n.range=[i,i]}else n.range=[t.start,t.end],n.nticks=(t.end-t.start)/t.size;n.range[0]===n.range[1]&&(n.range[1]+=n.range[0]||1),n.nticks||(n.nticks=1e3),l(n,r),s.prepTicks(n),n._tmin=null,n._tmax=null}return function(t){return s.tickText(n,t).text}},r.calcTextOpts=function(t,e,r,n){var i=e(t);r.text(i).call(o.convertToTspans,n);var s=a.bBox(r.node(),!0);return{text:i,width:s.width,height:s.height,level:t,dy:(s.top+s.bottom)/2}},r.findBestTextLocation=function(t,e,r,n,a){var o,s,l,c,u,f=r.width;e.isClosed?(s=e.len/v.INITIALSEARCHPOINTS,o=e.min+s/2,l=e.max):(s=(e.len-f)/(v.INITIALSEARCHPOINTS+1),o=e.min+s+f/2,l=e.max-(s+f)/2);for(var h=1/0,p=0;p<v.ITERATIONS;p++){for(var d=o;d<l;d+=s){var g=i.getTextLocation(t,e.total,d,f),m=y(g,r,n,a);m<h&&(h=m,u=g,c=d)}if(h>2*v.MAXCOST)break;p&&(s/=2),l=(o=c-s/2)+1.5*s}if(h<=v.MAXCOST)return u},r.addLabelData=function(t,e,r,n){var i=e.width/2,a=e.height/2,o=t.x,s=t.y,l=t.theta,c=Math.sin(l),u=Math.cos(l),f=i*u,h=a*c,p=i*c,d=-a*u,g=[[o-f-h,s-p-d],[o+f-h,s+p-d],[o+f+h,s+p+d],[o-f+h,s-p+d]];r.push({text:e.text,x:o,y:s,dy:e.dy,theta:l,level:e.level,width:e.width,height:e.height}),n.push(g)},r.drawLabels=function(t,e,r,a,s){var l=t.selectAll(\\\"text\\\").data(e,function(t){return t.text+\\\",\\\"+t.x+\\\",\\\"+t.y+\\\",\\\"+t.theta});if(l.exit().remove(),l.enter().append(\\\"text\\\").attr({\\\"data-notex\\\":1,\\\"text-anchor\\\":\\\"middle\\\"}).each(function(t){var e=t.x+Math.sin(t.theta)*t.dy,i=t.y-Math.cos(t.theta)*t.dy;n.select(this).text(t.text).attr({x:e,y:i,transform:\\\"rotate(\\\"+180*t.theta/Math.PI+\\\" \\\"+e+\\\" \\\"+i+\\\")\\\"}).call(o.convertToTspans,r)}),s){for(var c=\\\"\\\",u=0;u<s.length;u++)c+=\\\"M\\\"+s[u].join(\\\"L\\\")+\\\"Z\\\";i.ensureSingle(a,\\\"path\\\",\\\"\\\").attr(\\\"d\\\",c)}}},{\\\"../../components/drawing\\\":601,\\\"../../lib\\\":703,\\\"../../lib/svg_text_utils\\\":727,\\\"../../plots/cartesian/axes\\\":751,\\\"../../plots/cartesian/set_convert\\\":769,\\\"../heatmap/plot\\\":983,\\\"./close_boundaries\\\":923,\\\"./constants\\\":925,\\\"./convert_to_constraints\\\":929,\\\"./empty_pathinfo\\\":931,\\\"./find_all_paths\\\":933,\\\"./make_crossings\\\":938,d3:157}],940:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/axes\\\"),i=t(\\\"../../lib\\\");function a(t,e,r){var i={type:\\\"linear\\\",range:[t,e]};return n.autoTicks(i,(e-t)/(r||15)),i}e.exports=function(t,e){var r=t.contours;if(t.autocontour){var o=t.zmin,s=t.zmax;(t.zauto||void 0===o)&&(o=i.aggNums(Math.min,null,e)),(t.zauto||void 0===s)&&(s=i.aggNums(Math.max,null,e));var l=a(o,s,t.ncontours);r.size=l.dtick,r.start=n.tickFirst(l),l.range.reverse(),r.end=n.tickFirst(l),r.start===o&&(r.start+=r.size),r.end===s&&(r.end-=r.size),r.start>r.end&&(r.start=r.end=(r.start+r.end)/2),t._input.contours||(t._input.contours={}),i.extendFlat(t._input.contours,{start:r.start,end:r.end,size:r.size}),t._input.autocontour=!0}else if(\\\"constraint\\\"!==r.type){var c,u=r.start,f=r.end,h=t._input.contours;if(u>f&&(r.start=h.start=f,f=r.end=h.end=u,u=r.start),!(r.size>0))c=u===f?1:a(u,f,t.ncontours).dtick,h.size=r.size=c}}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751}],941:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../components/drawing\\\"),a=t(\\\"../heatmap/style\\\"),o=t(\\\"./make_color_map\\\");e.exports=function(t){var e=n.select(t).selectAll(\\\"g.contour\\\");e.style(\\\"opacity\\\",function(t){return t[0].trace.opacity}),e.each(function(t){var e=n.select(this),r=t[0].trace,a=r.contours,s=r.line,l=a.size||1,c=a.start,u=\\\"constraint\\\"===a.type,f=!u&&\\\"lines\\\"===a.coloring,h=!u&&\\\"fill\\\"===a.coloring,p=f||h?o(r):null;e.selectAll(\\\"g.contourlevel\\\").each(function(t){n.select(this).selectAll(\\\"path\\\").call(i.lineGroupStyle,s.width,f?p(t.level):s.color,s.dash)});var d=a.labelfont;if(e.selectAll(\\\"g.contourlabels text\\\").each(function(t){i.font(n.select(this),{family:d.family,size:d.size,color:d.color||(f?p(t.level):s.color)})}),u)e.selectAll(\\\"g.contourfill path\\\").style(\\\"fill\\\",r.fillcolor);else if(h){var g;e.selectAll(\\\"g.contourfill path\\\").style(\\\"fill\\\",function(t){return void 0===g&&(g=t.level),p(t.level+.5*l)}),void 0===g&&(g=c),e.selectAll(\\\"g.contourbg path\\\").style(\\\"fill\\\",p(g-.5*l))}}),a(t)}},{\\\"../../components/drawing\\\":601,\\\"../heatmap/style\\\":984,\\\"./make_color_map\\\":937,d3:157}],942:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale/defaults\\\"),i=t(\\\"./label_defaults\\\");e.exports=function(t,e,r,a,o){var s,l=r(\\\"contours.coloring\\\"),c=\\\"\\\";\\\"fill\\\"===l&&(s=r(\\\"contours.showlines\\\")),!1!==s&&(\\\"lines\\\"!==l&&(c=r(\\\"line.color\\\",\\\"#000\\\")),r(\\\"line.width\\\",.5),r(\\\"line.dash\\\")),\\\"none\\\"!==l&&(!0!==t.showlegend&&(e.showlegend=!1),e._dfltShowLegend=!1,n(t,e,a,r,{prefix:\\\"\\\",cLetter:\\\"z\\\"})),r(\\\"line.smoothing\\\"),i(r,a,c,o)}},{\\\"../../components/colorscale/defaults\\\":590,\\\"./label_defaults\\\":936}],943:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../heatmap/attributes\\\"),i=t(\\\"../contour/attributes\\\"),a=i.contours,o=t(\\\"../scatter/attributes\\\"),s=t(\\\"../../components/colorscale/attributes\\\"),l=t(\\\"../../lib/extend\\\").extendFlat,c=o.line;e.exports=l({carpet:{valType:\\\"string\\\",editType:\\\"calc\\\"},z:n.z,a:n.x,a0:n.x0,da:n.dx,b:n.y,b0:n.y0,db:n.dy,text:n.text,hovertext:n.hovertext,transpose:n.transpose,atype:n.xtype,btype:n.ytype,fillcolor:i.fillcolor,autocontour:i.autocontour,ncontours:i.ncontours,contours:{type:a.type,start:a.start,end:a.end,size:a.size,coloring:{valType:\\\"enumerated\\\",values:[\\\"fill\\\",\\\"lines\\\",\\\"none\\\"],dflt:\\\"fill\\\",editType:\\\"calc\\\"},showlines:a.showlines,showlabels:a.showlabels,labelfont:a.labelfont,labelformat:a.labelformat,operation:a.operation,value:a.value,editType:\\\"calc\\\",impliedEdits:{autocontour:!1}},line:{color:l({},c.color,{}),width:c.width,dash:c.dash,smoothing:l({},c.smoothing,{}),editType:\\\"plot\\\"},transforms:void 0},s(\\\"\\\",{cLetter:\\\"z\\\",autoColorDflt:!1}))},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../lib/extend\\\":693,\\\"../contour/attributes\\\":921,\\\"../heatmap/attributes\\\":972,\\\"../scatter/attributes\\\":1075}],944:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale/calc\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../heatmap/convert_column_xyz\\\"),o=t(\\\"../heatmap/clean_2d_array\\\"),s=t(\\\"../heatmap/interp2d\\\"),l=t(\\\"../heatmap/find_empties\\\"),c=t(\\\"../heatmap/make_bound_array\\\"),u=t(\\\"./defaults\\\"),f=t(\\\"../carpet/lookup_carpetid\\\"),h=t(\\\"../contour/set_contours\\\");e.exports=function(t,e){var r=e._carpetTrace=f(t,e);if(r&&r.visible&&\\\"legendonly\\\"!==r.visible){if(!e.a||!e.b){var p=t.data[r.index],d=t.data[e.index];d.a||(d.a=p.a),d.b||(d.b=p.b),u(d,e,e._defaultColor,t._fullLayout)}var g=function(t,e){var r,u,f,h,p,d,g,v=e._carpetTrace,m=v.aaxis,y=v.baxis;m._minDtick=0,y._minDtick=0,i.isArray1D(e.z)&&a(e,m,y,\\\"a\\\",\\\"b\\\",[\\\"z\\\"]);r=e._a=e._a||e.a,h=e._b=e._b||e.b,r=r?m.makeCalcdata(e,\\\"_a\\\"):[],h=h?y.makeCalcdata(e,\\\"_b\\\"):[],u=e.a0||0,f=e.da||1,p=e.b0||0,d=e.db||1,g=e._z=o(e._z||e.z,e.transpose),e._emptypoints=l(g),s(g,e._emptypoints);var x=i.maxRowLength(g),b=\\\"scaled\\\"===e.xtype?\\\"\\\":r,_=c(e,b,u,f,x,m),w=\\\"scaled\\\"===e.ytype?\\\"\\\":h,k=c(e,w,p,d,g.length,y),T={a:_,b:k,z:g};\\\"levels\\\"===e.contours.type&&\\\"none\\\"!==e.contours.coloring&&n(t,e,{vals:g,containerStr:\\\"\\\",cLetter:\\\"z\\\"});return[T]}(t,e);return h(e,e._z),g}}},{\\\"../../components/colorscale/calc\\\":588,\\\"../../lib\\\":703,\\\"../carpet/lookup_carpetid\\\":899,\\\"../contour/set_contours\\\":940,\\\"../heatmap/clean_2d_array\\\":974,\\\"../heatmap/convert_column_xyz\\\":976,\\\"../heatmap/find_empties\\\":978,\\\"../heatmap/interp2d\\\":981,\\\"../heatmap/make_bound_array\\\":982,\\\"./defaults\\\":945}],945:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../heatmap/xyz_defaults\\\"),a=t(\\\"./attributes\\\"),o=t(\\\"../contour/constraint_defaults\\\"),s=t(\\\"../contour/contours_defaults\\\"),l=t(\\\"../contour/style_defaults\\\");e.exports=function(t,e,r,c){function u(r,i){return n.coerce(t,e,a,r,i)}if(u(\\\"carpet\\\"),t.a&&t.b){if(!i(t,e,u,c,\\\"a\\\",\\\"b\\\"))return void(e.visible=!1);u(\\\"text\\\"),\\\"constraint\\\"===u(\\\"contours.type\\\")?o(t,e,u,c,r,{hasHover:!1}):(s(t,e,u,function(r){return n.coerce2(t,e,a,r)}),l(t,e,u,c,{hasHover:!1}))}else e._defaultColor=r,e._length=null}},{\\\"../../lib\\\":703,\\\"../contour/constraint_defaults\\\":926,\\\"../contour/contours_defaults\\\":928,\\\"../contour/style_defaults\\\":942,\\\"../heatmap/xyz_defaults\\\":986,\\\"./attributes\\\":943}],946:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),colorbar:t(\\\"../contour/colorbar\\\"),calc:t(\\\"./calc\\\"),plot:t(\\\"./plot\\\"),style:t(\\\"../contour/style\\\"),moduleType:\\\"trace\\\",name:\\\"contourcarpet\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"cartesian\\\",\\\"svg\\\",\\\"carpet\\\",\\\"contour\\\",\\\"symbols\\\",\\\"showLegend\\\",\\\"hasLines\\\",\\\"carpetDependent\\\"],meta:{}}},{\\\"../../plots/cartesian\\\":762,\\\"../contour/colorbar\\\":924,\\\"../contour/style\\\":941,\\\"./attributes\\\":943,\\\"./calc\\\":944,\\\"./defaults\\\":945,\\\"./plot\\\":949}],947:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/drawing\\\"),i=t(\\\"../carpet/axis_aligned_line\\\"),a=t(\\\"../../lib\\\");e.exports=function(t,e,r,o,s,l,c,u){var f,h,p,d,g,v,m,y=\\\"\\\",x=e.edgepaths.map(function(t,e){return e}),b=!0,_=1e-4*Math.abs(r[0][0]-r[2][0]),w=1e-4*Math.abs(r[0][1]-r[2][1]);function k(t){return Math.abs(t[1]-r[0][1])<w}function T(t){return Math.abs(t[1]-r[2][1])<w}function A(t){return Math.abs(t[0]-r[0][0])<_}function M(t){return Math.abs(t[0]-r[2][0])<_}function S(t,e){var r,n,a,o,f=\\\"\\\";for(k(t)&&!M(t)||T(t)&&!A(t)?(o=s.aaxis,a=i(s,l,[t[0],e[0]],.5*(t[1]+e[1]))):(o=s.baxis,a=i(s,l,.5*(t[0]+e[0]),[t[1],e[1]])),r=1;r<a.length;r++)for(f+=o.smoothing?\\\"C\\\":\\\"L\\\",n=0;n<a[r].length;n++){var h=a[r][n];f+=[c.c2p(h[0]),u.c2p(h[1])]+\\\" \\\"}return f}for(f=0,h=null;x.length;){var E=e.edgepaths[f][0];for(h&&(y+=S(h,E)),m=n.smoothopen(e.edgepaths[f].map(o),e.smoothing),y+=b?m:m.replace(/^M/,\\\"L\\\"),x.splice(x.indexOf(f),1),h=e.edgepaths[f][e.edgepaths[f].length-1],g=-1,d=0;d<4;d++){if(!h){a.log(\\\"Missing end?\\\",f,e);break}for(k(h)&&!M(h)?p=r[1]:A(h)?p=r[0]:T(h)?p=r[3]:M(h)&&(p=r[2]),v=0;v<e.edgepaths.length;v++){var C=e.edgepaths[v][0];Math.abs(h[0]-p[0])<_?Math.abs(h[0]-C[0])<_&&(C[1]-h[1])*(p[1]-C[1])>=0&&(p=C,g=v):Math.abs(h[1]-p[1])<w?Math.abs(h[1]-C[1])<w&&(C[0]-h[0])*(p[0]-C[0])>=0&&(p=C,g=v):a.log(\\\"endpt to newendpt is not vert. or horz.\\\",h,p,C)}if(g>=0)break;y+=S(h,p),h=p}if(g===e.edgepaths.length){a.log(\\\"unclosed perimeter path\\\");break}f=g,(b=-1===x.indexOf(f))&&(f=x[0],y+=S(h,p)+\\\"Z\\\",h=null)}for(f=0;f<e.paths.length;f++)y+=n.smoothclosed(e.paths[f].map(o),e.smoothing);return y}},{\\\"../../components/drawing\\\":601,\\\"../../lib\\\":703,\\\"../carpet/axis_aligned_line\\\":883}],948:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){var r,n,i,a,o,s,l,c,u;for(r=0;r<t.length;r++){for(o=(a=t[r]).pedgepaths=[],s=a.ppaths=[],n=0;n<a.edgepaths.length;n++){for(u=a.edgepaths[n],l=[],i=0;i<u.length;i++)l[i]=e(u[i]);o.push(l)}for(n=0;n<a.paths.length;n++){for(u=a.paths[n],c=[],i=0;i<u.length;i++)c[i]=e(u[i]);s.push(c)}}}},{}],949:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../carpet/map_1d_array\\\"),a=t(\\\"../carpet/makepath\\\"),o=t(\\\"../../components/drawing\\\"),s=t(\\\"../../lib\\\"),l=t(\\\"../contour/make_crossings\\\"),c=t(\\\"../contour/find_all_paths\\\"),u=t(\\\"../contour/plot\\\"),f=t(\\\"../contour/constants\\\"),h=t(\\\"../contour/convert_to_constraints\\\"),p=t(\\\"./join_all_paths\\\"),d=t(\\\"../contour/empty_pathinfo\\\"),g=t(\\\"./map_pathinfo\\\"),v=t(\\\"../carpet/lookup_carpetid\\\"),m=t(\\\"../contour/close_boundaries\\\");function y(t,e,r){var n=t.getPointAtLength(e),i=t.getPointAtLength(r),a=i.x-n.x,o=i.y-n.y,s=Math.sqrt(a*a+o*o);return[a/s,o/s]}function x(t){var e=Math.sqrt(t[0]*t[0]+t[1]*t[1]);return[t[0]/e,t[1]/e]}function b(t,e){var r=Math.abs(t[0]*e[0]+t[1]*e[1]);return Math.sqrt(1-r*r)/r}e.exports=function(t,e,r,_){var w=e.xaxis,k=e.yaxis;s.makeTraceGroups(_,r,\\\"contour\\\").each(function(r){var _=n.select(this),T=r[0],A=T.trace,M=A._carpetTrace=v(t,A),S=t.calcdata[M.index][0];if(M.visible&&\\\"legendonly\\\"!==M.visible){var E=T.a,C=T.b,L=A.contours,z=d(L,e,T),O=\\\"constraint\\\"===L.type,I=L._operation,D=O?\\\"=\\\"===I?\\\"lines\\\":\\\"fill\\\":L.coloring,P=[[E[0],C[C.length-1]],[E[E.length-1],C[C.length-1]],[E[E.length-1],C[0]],[E[0],C[0]]];l(z);var R=1e-8*(E[E.length-1]-E[0]),F=1e-8*(C[C.length-1]-C[0]);c(z,R,F);var B,N,j,V,U=z;\\\"constraint\\\"===L.type&&(U=h(z,I),m(U,I,P,A)),g(z,G);var H=[];for(V=S.clipsegments.length-1;V>=0;V--)B=S.clipsegments[V],N=i([],B.x,w.c2p),j=i([],B.y,k.c2p),N.reverse(),j.reverse(),H.push(a(N,j,B.bicubic));var q=\\\"M\\\"+H.join(\\\"L\\\")+\\\"Z\\\";!function(t,e,r,n,o,l){var c,u,f,h,p=s.ensureSingle(t,\\\"g\\\",\\\"contourbg\\\").selectAll(\\\"path\\\").data(\\\"fill\\\"!==l||o?[]:[0]);p.enter().append(\\\"path\\\"),p.exit().remove();var d=[];for(h=0;h<e.length;h++)c=e[h],u=i([],c.x,r.c2p),f=i([],c.y,n.c2p),d.push(a(u,f,c.bicubic));p.attr(\\\"d\\\",\\\"M\\\"+d.join(\\\"L\\\")+\\\"Z\\\").style(\\\"stroke\\\",\\\"none\\\")}(_,S.clipsegments,w,k,O,D),function(t,e,r,i,a,o,l,c,u,f,h){var d=s.ensureSingle(e,\\\"g\\\",\\\"contourfill\\\").selectAll(\\\"path\\\").data(\\\"fill\\\"===f?a:[]);d.enter().append(\\\"path\\\"),d.exit().remove(),d.each(function(e){var a=p(t,e,o,l,c,u,r,i);e.prefixBoundary&&(a=h+a),a?n.select(this).attr(\\\"d\\\",a).style(\\\"stroke\\\",\\\"none\\\"):n.select(this).remove()})}(A,_,w,k,U,P,G,M,S,D,q),function(t,e,r,i,a,l,c){var h=s.ensureSingle(t,\\\"g\\\",\\\"contourlines\\\"),p=!1!==a.showlines,d=a.showlabels,g=p&&d,v=u.createLines(h,p||d,e),m=u.createLineClip(h,g,r,i.trace.uid),_=t.selectAll(\\\"g.contourlabels\\\").data(d?[0]:[]);if(_.exit().remove(),_.enter().append(\\\"g\\\").classed(\\\"contourlabels\\\",!0),d){var w=l.xaxis,k=l.yaxis,T=w._length,A=k._length,M=[[[0,0],[T,0],[T,A],[0,A]]],S=[];s.clearLocationCache();var E=u.labelFormatter(a,i.t.cb,r._fullLayout),C=o.tester.append(\\\"text\\\").attr(\\\"data-notex\\\",1).call(o.font,a.labelfont),L={left:0,right:T,center:T/2,top:0,bottom:A,middle:A/2},z=Math.sqrt(T*T+A*A),O=f.LABELDISTANCE*z/Math.max(1,e.length/f.LABELINCREASE);v.each(function(t){var e=u.calcTextOpts(t.level,E,C,r);n.select(this).selectAll(\\\"path\\\").each(function(r){var n=s.getVisibleSegment(this,L,e.height/2);if(n&&(function(t,e,r,n,i,a){for(var o,s=0;s<r.pedgepaths.length;s++)e===r.pedgepaths[s]&&(o=r.edgepaths[s]);if(!o)return;var l=i.a[0],c=i.a[i.a.length-1],u=i.b[0],f=i.b[i.b.length-1];function h(t,e){var r,n=0;return(Math.abs(t[0]-l)<.1||Math.abs(t[0]-c)<.1)&&(r=x(i.dxydb_rough(t[0],t[1],.1)),n=Math.max(n,a*b(e,r)/2)),(Math.abs(t[1]-u)<.1||Math.abs(t[1]-f)<.1)&&(r=x(i.dxyda_rough(t[0],t[1],.1)),n=Math.max(n,a*b(e,r)/2)),n}var p=y(t,0,1),d=y(t,n.total,n.total-1),g=h(o[0],p),v=n.total-h(o[o.length-1],d);n.min<g&&(n.min=g);n.max>v&&(n.max=v);n.len=n.max-n.min}(this,r,t,n,c,e.height),!(n.len<(e.width+e.height)*f.LABELMIN)))for(var i=Math.min(Math.ceil(n.len/O),f.LABELMAX),a=0;a<i;a++){var o=u.findBestTextLocation(this,n,e,S,L);if(!o)break;u.addLabelData(o,e,S,M)}})}),C.remove(),u.drawLabels(_,S,r,m,g?M:null)}d&&!p&&v.remove()}(_,z,t,T,L,e,M),o.setClipUrl(_,M._clipPathId,t)}function G(t){var e=M.ab2xy(t[0],t[1],!0);return[w.c2p(e[0]),k.c2p(e[1])]}})}},{\\\"../../components/drawing\\\":601,\\\"../../lib\\\":703,\\\"../carpet/lookup_carpetid\\\":899,\\\"../carpet/makepath\\\":900,\\\"../carpet/map_1d_array\\\":901,\\\"../contour/close_boundaries\\\":923,\\\"../contour/constants\\\":925,\\\"../contour/convert_to_constraints\\\":929,\\\"../contour/empty_pathinfo\\\":931,\\\"../contour/find_all_paths\\\":933,\\\"../contour/make_crossings\\\":938,\\\"../contour/plot\\\":939,\\\"./join_all_paths\\\":947,\\\"./map_pathinfo\\\":948,d3:157}],950:[function(t,e,r){arguments[4][840][0].apply(r,arguments)},{\\\"../../lib\\\":703,dup:840}],951:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../bar/attributes\\\"),i=t(\\\"../scatter/attributes\\\").line,a=t(\\\"../../plots/attributes\\\"),o=t(\\\"../../components/fx/hovertemplate_attributes\\\"),s=t(\\\"./constants\\\"),l=t(\\\"../../lib/extend\\\").extendFlat,c=t(\\\"../../components/color\\\");e.exports={x:n.x,x0:n.x0,dx:n.dx,y:n.y,y0:n.y0,dy:n.dy,hovertext:n.hovertext,hovertemplate:o({},{keys:s.eventDataKeys}),hoverinfo:l({},a.hoverinfo,{flags:[\\\"name\\\",\\\"x\\\",\\\"y\\\",\\\"text\\\",\\\"percent initial\\\",\\\"percent previous\\\",\\\"percent total\\\"]}),textinfo:{valType:\\\"flaglist\\\",flags:[\\\"label\\\",\\\"text\\\",\\\"percent initial\\\",\\\"percent previous\\\",\\\"percent total\\\",\\\"value\\\"],extras:[\\\"none\\\"],editType:\\\"plot\\\",arrayOk:!1},text:n.text,textposition:l({},n.textposition,{dflt:\\\"auto\\\"}),insidetextanchor:l({},n.insidetextanchor,{dflt:\\\"middle\\\"}),textangle:l({},n.textangle,{dflt:0}),textfont:n.textfont,insidetextfont:n.insidetextfont,outsidetextfont:n.outsidetextfont,constraintext:n.constraintext,cliponaxis:n.cliponaxis,orientation:l({},n.orientation,{}),offset:l({},n.offset,{arrayOk:!1}),width:l({},n.width,{arrayOk:!1}),marker:n.marker,connector:{fillcolor:{valType:\\\"color\\\",editType:\\\"style\\\"},line:{color:l({},i.color,{dflt:c.defaultLine}),width:l({},i.width,{dflt:0,editType:\\\"plot\\\"}),dash:i.dash,editType:\\\"style\\\"},visible:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"plot\\\"},editType:\\\"plot\\\"},offsetgroup:n.offsetgroup,alignmentgroup:n.alignmentgroup}},{\\\"../../components/color\\\":580,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plots/attributes\\\":748,\\\"../bar/attributes\\\":841,\\\"../scatter/attributes\\\":1075,\\\"./constants\\\":953}],952:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/axes\\\"),i=t(\\\"./arrays_to_calcdata\\\"),a=t(\\\"../scatter/calc_selection\\\"),o=t(\\\"../../constants/numerical\\\").BADNUM;function s(t){return t===o?0:t}e.exports=function(t,e){var r,l,c,u,f=n.getFromId(t,e.xaxis||\\\"x\\\"),h=n.getFromId(t,e.yaxis||\\\"y\\\");\\\"h\\\"===e.orientation?(r=f.makeCalcdata(e,\\\"x\\\"),l=h.makeCalcdata(e,\\\"y\\\")):(r=h.makeCalcdata(e,\\\"y\\\"),l=f.makeCalcdata(e,\\\"x\\\"));var p,d=Math.min(l.length,r.length),g=new Array(d);for(e._base=[],c=0;c<d;c++){r[c]<0&&(r[c]=o);var v=!1;r[c]!==o&&c+1<d&&r[c+1]!==o&&(v=!0),u=g[c]={p:l[c],s:r[c],cNext:v},e._base[c]=-.5*u.s,e.ids&&(u.id=String(e.ids[c])),0===c&&(g[0].vTotal=0),g[0].vTotal+=s(u.s),u.begR=s(u.s)/s(g[0].s)}for(c=0;c<d;c++)(u=g[c]).s!==o&&(u.sumR=u.s/g[0].vTotal,u.difR=void 0!==p?u.s/p:1,p=u.s);return i(g,e),a(g,e),g}},{\\\"../../constants/numerical\\\":680,\\\"../../plots/cartesian/axes\\\":751,\\\"../scatter/calc_selection\\\":1077,\\\"./arrays_to_calcdata\\\":950}],953:[function(t,e,r){\\\"use strict\\\";e.exports={eventDataKeys:[\\\"percentInitial\\\",\\\"percentPrevious\\\",\\\"percentTotal\\\"]}},{}],954:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../bar/cross_trace_calc\\\").setGroupPositions;e.exports=function(t,e){var r,i,a=t._fullLayout,o=t._fullData,s=t.calcdata,l=e.xaxis,c=e.yaxis,u=[],f=[],h=[];for(i=0;i<o.length;i++){var p=o[i],d=\\\"h\\\"===p.orientation;!0===p.visible&&p.xaxis===l._id&&p.yaxis===c._id&&\\\"funnel\\\"===p.type&&(r=s[i],d?h.push(r):f.push(r),u.push(r))}var g={mode:a.funnelmode,norm:a.funnelnorm,gap:a.funnelgap,groupgap:a.funnelgroupgap};for(n(t,l,c,f,g),n(t,c,l,h,g),i=0;i<u.length;i++){r=u[i];for(var v=0;v<r.length;v++)v+1<r.length&&(r[v].nextP0=r[v+1].p0,r[v].nextS0=r[v+1].s0,r[v].nextP1=r[v+1].p1,r[v].nextS1=r[v+1].s1)}}},{\\\"../bar/cross_trace_calc\\\":844}],955:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../bar/defaults\\\").handleGroupingDefaults,a=t(\\\"../bar/defaults\\\").handleText,o=t(\\\"../scatter/xy_defaults\\\"),s=t(\\\"./attributes\\\"),l=t(\\\"../../components/color\\\");e.exports={supplyDefaults:function(t,e,r,i){function c(r,i){return n.coerce(t,e,s,r,i)}if(o(t,e,i,c)){c(\\\"orientation\\\",e.y&&!e.x?\\\"v\\\":\\\"h\\\"),c(\\\"offset\\\"),c(\\\"width\\\");var u=c(\\\"text\\\");c(\\\"hovertext\\\"),c(\\\"hovertemplate\\\");var f=c(\\\"textposition\\\");a(t,e,i,c,f,{moduleHasSelected:!1,moduleHasUnselected:!1,moduleHasConstrain:!0,moduleHasCliponaxis:!0,moduleHasTextangle:!0,moduleHasInsideanchor:!0}),\\\"none\\\"!==e.textposition&&c(\\\"textinfo\\\",Array.isArray(u)?\\\"text+value\\\":\\\"value\\\");var h=c(\\\"marker.color\\\",r);c(\\\"marker.line.color\\\",l.defaultLine),c(\\\"marker.line.width\\\"),c(\\\"connector.visible\\\")&&(c(\\\"connector.fillcolor\\\",function(t){var e=n.isArrayOrTypedArray(t)?\\\"#000\\\":t;return l.addOpacity(e,.5*l.opacity(e))}(h)),c(\\\"connector.line.width\\\")&&(c(\\\"connector.line.color\\\"),c(\\\"connector.line.dash\\\")))}else e.visible=!1},crossTraceDefaults:function(t,e){var r,a;function o(t){return n.coerce(a._input,a,s,t)}if(\\\"group\\\"===e.funnelmode)for(var l=0;l<t.length;l++)r=(a=t[l])._input,i(r,a,e,o)}}},{\\\"../../components/color\\\":580,\\\"../../lib\\\":703,\\\"../bar/defaults\\\":845,\\\"../scatter/xy_defaults\\\":1100,\\\"./attributes\\\":951}],956:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){return t.x=\\\"xVal\\\"in e?e.xVal:e.x,t.y=\\\"yVal\\\"in e?e.yVal:e.y,\\\"percentInitial\\\"in e&&(t.percentInitial=e.percentInitial),\\\"percentPrevious\\\"in e&&(t.percentPrevious=e.percentPrevious),\\\"percentTotal\\\"in e&&(t.percentTotal=e.percentTotal),e.xa&&(t.xaxis=e.xa),e.ya&&(t.yaxis=e.ya),t}},{}],957:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/color\\\").opacity,i=t(\\\"../bar/hover\\\").hoverOnBars,a=t(\\\"../../lib\\\").formatPercent;e.exports=function(t,e,r,o){var s=i(t,e,r,o);if(s){var l=s.cd,c=l[0].trace,u=\\\"h\\\"===c.orientation,f=l[s.index];s[(u?\\\"x\\\":\\\"y\\\")+\\\"LabelVal\\\"]=f.s,s.percentInitial=f.begR,s.percentInitialLabel=a(f.begR,1),s.percentPrevious=f.difR,s.percentPreviousLabel=a(f.difR,1),s.percentTotal=f.sumR,s.percentTotalLabel=a(f.sumR,1);var h=f.hi||c.hoverinfo,p=[];if(h&&\\\"none\\\"!==h&&\\\"skip\\\"!==h){var d=\\\"all\\\"===h,g=h.split(\\\"+\\\"),v=function(t){return d||-1!==g.indexOf(t)};v(\\\"percent initial\\\")&&p.push(s.percentInitialLabel+\\\" of initial\\\"),v(\\\"percent previous\\\")&&p.push(s.percentPreviousLabel+\\\" of previous\\\"),v(\\\"percent total\\\")&&p.push(s.percentTotalLabel+\\\" of total\\\")}return s.extraText=p.join(\\\"<br>\\\"),s.color=function(t,e){var r=t.marker,i=e.mc||r.color,a=e.mlc||r.line.color,o=e.mlw||r.line.width;if(n(i))return i;if(n(a)&&o)return a}(c,f),[s]}}},{\\\"../../components/color\\\":580,\\\"../../lib\\\":703,\\\"../bar/hover\\\":847}],958:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),layoutAttributes:t(\\\"./layout_attributes\\\"),supplyDefaults:t(\\\"./defaults\\\").supplyDefaults,crossTraceDefaults:t(\\\"./defaults\\\").crossTraceDefaults,supplyLayoutDefaults:t(\\\"./layout_defaults\\\"),calc:t(\\\"./calc\\\"),crossTraceCalc:t(\\\"./cross_trace_calc\\\"),plot:t(\\\"./plot\\\"),style:t(\\\"./style\\\").style,hoverPoints:t(\\\"./hover\\\"),eventData:t(\\\"./event_data\\\"),selectPoints:t(\\\"../bar/select\\\"),moduleType:\\\"trace\\\",name:\\\"funnel\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"bar-like\\\",\\\"cartesian\\\",\\\"svg\\\",\\\"oriented\\\",\\\"showLegend\\\",\\\"zoomScale\\\"],meta:{}}},{\\\"../../plots/cartesian\\\":762,\\\"../bar/select\\\":852,\\\"./attributes\\\":951,\\\"./calc\\\":952,\\\"./cross_trace_calc\\\":954,\\\"./defaults\\\":955,\\\"./event_data\\\":956,\\\"./hover\\\":957,\\\"./layout_attributes\\\":959,\\\"./layout_defaults\\\":960,\\\"./plot\\\":961,\\\"./style\\\":962}],959:[function(t,e,r){\\\"use strict\\\";e.exports={funnelmode:{valType:\\\"enumerated\\\",values:[\\\"stack\\\",\\\"group\\\",\\\"overlay\\\"],dflt:\\\"stack\\\",editType:\\\"calc\\\"},funnelgap:{valType:\\\"number\\\",min:0,max:1,editType:\\\"calc\\\"},funnelgroupgap:{valType:\\\"number\\\",min:0,max:1,dflt:0,editType:\\\"calc\\\"}}},{}],960:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./layout_attributes\\\");e.exports=function(t,e,r){var a=!1;function o(r,a){return n.coerce(t,e,i,r,a)}for(var s=0;s<r.length;s++){var l=r[s];if(l.visible&&\\\"funnel\\\"===l.type){a=!0;break}}a&&(o(\\\"funnelmode\\\"),o(\\\"funnelgap\\\",.2),o(\\\"funnelgroupgap\\\"))}},{\\\"../../lib\\\":703,\\\"./layout_attributes\\\":959}],961:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../components/drawing\\\"),o=t(\\\"../bar/plot\\\").plot;function s(t,e,r,n){var i=[],a=[],o=n?e:r,s=n?r:e;return i[0]=o.c2p(t.s0,!0),a[0]=s.c2p(t.p0,!0),i[1]=o.c2p(t.s1,!0),a[1]=s.c2p(t.p1,!0),i[2]=o.c2p(t.nextS0,!0),a[2]=s.c2p(t.nextP0,!0),i[3]=o.c2p(t.nextS1,!0),a[3]=s.c2p(t.nextP1,!0),n?[i,a]:[a,i]}e.exports=function(t,e,r,l){var c=t._fullLayout;!function(t,e,r,o){var l=e.xaxis,c=e.yaxis;i.makeTraceGroups(o,r,\\\"trace bars\\\").each(function(r){var o=n.select(this),u=r[0].trace,f=i.ensureSingle(o,\\\"g\\\",\\\"regions\\\");if(u.connector&&u.connector.visible){var h=\\\"h\\\"===u.orientation,p=f.selectAll(\\\"g.region\\\").data(i.identity);p.enter().append(\\\"g\\\").classed(\\\"region\\\",!0),p.exit().remove();var d=p.size();p.each(function(r,o){if(o===d-1||r.cNext){var u=s(r,l,c,h),f=u[0],p=u[1],g=\\\"\\\";void 0!==f[3]&&void 0!==p[3]&&(g+=h?\\\"M\\\"+f[0]+\\\",\\\"+p[1]+\\\"L\\\"+f[2]+\\\",\\\"+p[2]+\\\"H\\\"+f[3]+\\\"L\\\"+f[1]+\\\",\\\"+p[1]+\\\"Z\\\":\\\"M\\\"+f[1]+\\\",\\\"+p[1]+\\\"L\\\"+f[2]+\\\",\\\"+p[3]+\\\"V\\\"+p[2]+\\\"L\\\"+f[1]+\\\",\\\"+p[0]+\\\"Z\\\"),i.ensureSingle(n.select(this),\\\"path\\\").attr(\\\"d\\\",g).call(a.setClipUrl,e.layerClipId,t)}})}else f.remove()})}(t,e,r,l),function(t,e,r,o){var l=e.xaxis,c=e.yaxis;i.makeTraceGroups(o,r,\\\"trace bars\\\").each(function(r){var o=n.select(this),u=r[0].trace,f=i.ensureSingle(o,\\\"g\\\",\\\"lines\\\");if(u.connector&&u.connector.visible&&u.connector.line.width){var h=\\\"h\\\"===u.orientation,p=f.selectAll(\\\"g.line\\\").data(i.identity);p.enter().append(\\\"g\\\").classed(\\\"line\\\",!0),p.exit().remove();var d=p.size();p.each(function(r,o){if(o===d-1||r.cNext){var u=s(r,l,c,h),f=u[0],p=u[1],g=\\\"\\\";void 0!==f[3]&&void 0!==p[3]&&(h?(g+=\\\"M\\\"+f[0]+\\\",\\\"+p[1]+\\\"L\\\"+f[2]+\\\",\\\"+p[2],g+=\\\"M\\\"+f[1]+\\\",\\\"+p[1]+\\\"L\\\"+f[3]+\\\",\\\"+p[2]):(g+=\\\"M\\\"+f[1]+\\\",\\\"+p[1]+\\\"L\\\"+f[2]+\\\",\\\"+p[3],g+=\\\"M\\\"+f[1]+\\\",\\\"+p[0]+\\\"L\\\"+f[2]+\\\",\\\"+p[2])),\\\"\\\"===g&&(g=\\\"M0,0Z\\\"),i.ensureSingle(n.select(this),\\\"path\\\").attr(\\\"d\\\",g).call(a.setClipUrl,e.layerClipId,t)}})}else f.remove()})}(t,e,r,l),o(t,e,r,l,{mode:c.funnelmode,norm:c.funnelmode,gap:c.funnelgap,groupgap:c.funnelgroupgap})}},{\\\"../../components/drawing\\\":601,\\\"../../lib\\\":703,\\\"../bar/plot\\\":851,d3:157}],962:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../components/drawing\\\"),a=t(\\\"../../components/color\\\"),o=t(\\\"../bar/style\\\").styleTextPoints;e.exports={style:function(t,e){var r=e?e[0].node3:n.select(t).selectAll(\\\"g.funnellayer\\\").selectAll(\\\"g.trace\\\");r.style(\\\"opacity\\\",function(t){return t[0].trace.opacity}),r.each(function(e){var r=n.select(this),s=e[0].trace;r.selectAll(\\\".point > path\\\").each(function(t){if(!t.isBlank){var e=s.marker;n.select(this).call(a.fill,t.mc||e.color).call(a.stroke,t.mlc||e.line.color).call(i.dashLine,e.line.dash,t.mlw||e.line.width).style(\\\"opacity\\\",s.selectedpoints&&!t.selected?.3:1)}}),o(r,s,t),r.selectAll(\\\".regions\\\").each(function(){n.select(this).selectAll(\\\"path\\\").style(\\\"stroke-width\\\",0).call(a.fill,s.connector.fillcolor)}),r.selectAll(\\\".lines\\\").each(function(){var t=s.connector.line;i.lineGroupStyle(n.select(this).selectAll(\\\"path\\\"),t.width,t.color,t.dash)})})}}},{\\\"../../components/color\\\":580,\\\"../../components/drawing\\\":601,\\\"../bar/style\\\":854,d3:157}],963:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../pie/attributes\\\"),i=t(\\\"../../plots/attributes\\\"),a=t(\\\"../../plots/domain\\\").attributes,o=t(\\\"../../components/fx/hovertemplate_attributes\\\"),s=t(\\\"../../lib/extend\\\").extendFlat;e.exports={labels:n.labels,label0:n.label0,dlabel:n.dlabel,values:n.values,marker:{colors:n.marker.colors,line:{color:s({},n.marker.line.color,{dflt:null}),width:s({},n.marker.line.width,{dflt:1}),editType:\\\"calc\\\"},editType:\\\"calc\\\"},text:n.text,hovertext:n.hovertext,scalegroup:s({},n.scalegroup,{}),textinfo:s({},n.textinfo,{flags:[\\\"label\\\",\\\"text\\\",\\\"value\\\",\\\"percent\\\"]}),hoverinfo:s({},i.hoverinfo,{flags:[\\\"label\\\",\\\"text\\\",\\\"value\\\",\\\"percent\\\",\\\"name\\\"]}),hovertemplate:o({},{keys:[\\\"label\\\",\\\"color\\\",\\\"value\\\",\\\"percent\\\",\\\"text\\\"]}),textposition:s({},n.textposition,{values:[\\\"inside\\\",\\\"none\\\"],dflt:\\\"inside\\\"}),textfont:n.textfont,insidetextfont:n.insidetextfont,title:{text:n.title.text,font:n.title.font,position:s({},n.title.position,{values:[\\\"top left\\\",\\\"top center\\\",\\\"top right\\\"],dflt:\\\"top center\\\"}),editType:\\\"plot\\\"},domain:a({name:\\\"funnelarea\\\",trace:!0,editType:\\\"calc\\\"}),aspectratio:{valType:\\\"number\\\",min:0,dflt:1,editType:\\\"plot\\\"},baseratio:{valType:\\\"number\\\",min:0,max:1,dflt:.333,editType:\\\"plot\\\"}}},{\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plots/attributes\\\":748,\\\"../../plots/domain\\\":776,\\\"../pie/attributes\\\":1049}],964:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../plots/get_data\\\").getModuleCalcData;r.name=\\\"funnelarea\\\",r.plot=function(t){var e=n.getModule(\\\"funnelarea\\\"),r=i(t.calcdata,e)[0];e.plot(t,r)},r.clean=function(t,e,r,n){var i=n._has&&n._has(\\\"funnelarea\\\"),a=e._has&&e._has(\\\"funnelarea\\\");i&&!a&&n._funnelarealayer.selectAll(\\\"g.trace\\\").remove()}},{\\\"../../plots/get_data\\\":786,\\\"../../registry\\\":831}],965:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../pie/calc\\\");e.exports={calc:function(t,e){return n.calc(t,e)},crossTraceCalc:function(t){n.crossTraceCalc(t,{type:\\\"funnelarea\\\"})}}},{\\\"../pie/calc\\\":1051}],966:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./attributes\\\"),a=t(\\\"../../plots/domain\\\").defaults,o=t(\\\"../bar/defaults\\\").handleText;e.exports=function(t,e,r,s){function l(r,a){return n.coerce(t,e,i,r,a)}var c,u=l(\\\"values\\\"),f=n.isArrayOrTypedArray(u),h=l(\\\"labels\\\");if(Array.isArray(h)?(c=h.length,f&&(c=Math.min(c,u.length))):f&&(c=u.length,l(\\\"label0\\\"),l(\\\"dlabel\\\")),c){e._length=c,l(\\\"marker.line.width\\\")&&l(\\\"marker.line.color\\\",s.paper_bgcolor),l(\\\"marker.colors\\\"),l(\\\"scalegroup\\\");var p=l(\\\"text\\\"),d=l(\\\"textinfo\\\",Array.isArray(p)?\\\"text+percent\\\":\\\"percent\\\");if(l(\\\"hovertext\\\"),l(\\\"hovertemplate\\\"),d&&\\\"none\\\"!==d){var g=l(\\\"textposition\\\");o(t,e,s,l,g,{moduleHasSelected:!1,moduleHasUnselected:!1,moduleHasConstrain:!1,moduleHasCliponaxis:!1,moduleHasTextangle:!1,moduleHasInsideanchor:!1})}a(e,s,l),l(\\\"title.text\\\")&&(l(\\\"title.position\\\"),n.coerceFont(l,\\\"title.font\\\",s.font)),l(\\\"aspectratio\\\"),l(\\\"baseratio\\\")}else e.visible=!1}},{\\\"../../lib\\\":703,\\\"../../plots/domain\\\":776,\\\"../bar/defaults\\\":845,\\\"./attributes\\\":963}],967:[function(t,e,r){\\\"use strict\\\";e.exports={moduleType:\\\"trace\\\",name:\\\"funnelarea\\\",basePlotModule:t(\\\"./base_plot\\\"),categories:[\\\"pie-like\\\",\\\"funnelarea\\\",\\\"showLegend\\\"],attributes:t(\\\"./attributes\\\"),layoutAttributes:t(\\\"./layout_attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),supplyLayoutDefaults:t(\\\"./layout_defaults\\\"),calc:t(\\\"./calc\\\").calc,crossTraceCalc:t(\\\"./calc\\\").crossTraceCalc,plot:t(\\\"./plot\\\"),style:t(\\\"./style\\\"),styleOne:t(\\\"../pie/style_one\\\"),meta:{}}},{\\\"../pie/style_one\\\":1060,\\\"./attributes\\\":963,\\\"./base_plot\\\":964,\\\"./calc\\\":965,\\\"./defaults\\\":966,\\\"./layout_attributes\\\":968,\\\"./layout_defaults\\\":969,\\\"./plot\\\":970,\\\"./style\\\":971}],968:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../pie/layout_attributes\\\").hiddenlabels;e.exports={hiddenlabels:n,funnelareacolorway:{valType:\\\"colorlist\\\",editType:\\\"calc\\\"},extendfunnelareacolors:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"}}},{\\\"../pie/layout_attributes\\\":1056}],969:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./layout_attributes\\\");e.exports=function(t,e){function r(r,a){return n.coerce(t,e,i,r,a)}r(\\\"hiddenlabels\\\"),r(\\\"funnelareacolorway\\\",e.colorway),r(\\\"extendfunnelareacolors\\\")}},{\\\"../../lib\\\":703,\\\"./layout_attributes\\\":968}],970:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../components/drawing\\\"),a=t(\\\"../../lib\\\"),o=t(\\\"../../lib/svg_text_utils\\\"),s=t(\\\"../bar/plot\\\").getTransformToMoveInsideBar,l=t(\\\"../pie/helpers\\\"),c=t(\\\"../pie/plot\\\"),u=c.attachFxHandlers,f=c.determineInsideTextFont,h=c.layoutAreas,p=c.prerenderTitles,d=c.positionTitleOutside;function g(t,e){return\\\"l\\\"+(e[0]-t[0])+\\\",\\\"+(e[1]-t[1])}e.exports=function(t,e){var r=t._fullLayout;p(e,t),h(e,r._size),a.makeTraceGroups(r._funnelarealayer,e,\\\"trace\\\").each(function(e){var c=n.select(this),h=e[0],p=h.trace;!function(t){if(!t.length)return;var e=t[0],r=e.trace,n=r.aspectratio,i=r.baseratio;i>.999&&(i=.999);var a,o=Math.pow(i,2),s=e.vTotal,l=s,c=s*o/(1-o)/s;function u(){var t,e={x:t=Math.sqrt(c),y:-t};return[e.x,e.y]}var f,h,p=[];for(p.push(u()),f=t.length-1;f>-1;f--)if(!(h=t[f]).hidden){var d=h.v/l;c+=d,p.push(u())}var g=1/0,v=-1/0;for(f=0;f<p.length;f++)a=p[f],g=Math.min(g,a[1]),v=Math.max(v,a[1]);for(f=0;f<p.length;f++)p[f][1]-=(v+g)/2;var m=p[p.length-1][0],y=e.r,x=(v-g)/2,b=y/m,_=y/x*n;for(e.r=_*x,f=0;f<p.length;f++)p[f][0]*=b,p[f][1]*=_;var w=[-(a=p[0])[0],a[1]],k=[a[0],a[1]],T=0;for(f=t.length-1;f>-1;f--)if(!(h=t[f]).hidden){var A=p[T+=1][0],M=p[T][1];h.TL=[-A,M],h.TR=[A,M],h.BL=w,h.BR=k,h.pxmid=(S=h.TR,E=h.BR,[.5*(S[0]+E[0]),.5*(S[1]+E[1])]),w=h.TL,k=h.TR}var S,E}(e),c.each(function(){var c=n.select(this).selectAll(\\\"g.slice\\\").data(e);c.enter().append(\\\"g\\\").classed(\\\"slice\\\",!0),c.exit().remove(),c.each(function(r){if(r.hidden)n.select(this).selectAll(\\\"path,g\\\").remove();else{r.pointNumber=r.i,r.curveNumber=p.index;var c=h.cx,d=h.cy,v=n.select(this),m=v.selectAll(\\\"path.surface\\\").data([r]);m.enter().append(\\\"path\\\").classed(\\\"surface\\\",!0).style({\\\"pointer-events\\\":\\\"all\\\"}),v.call(u,t,e);var y=\\\"M\\\"+(c+r.TR[0])+\\\",\\\"+(d+r.TR[1])+g(r.TR,r.BR)+g(r.BR,r.BL)+g(r.BL,r.TL)+\\\"Z\\\";m.attr(\\\"d\\\",y);var x=l.castOption(p.textposition,r.pts),b=v.selectAll(\\\"g.slicetext\\\").data(r.text&&\\\"none\\\"!==x?[0]:[]);b.enter().append(\\\"g\\\").classed(\\\"slicetext\\\",!0),b.exit().remove(),b.each(function(){var e=a.ensureSingle(n.select(this),\\\"text\\\",\\\"\\\",function(t){t.attr(\\\"data-notex\\\",1)});e.text(r.text).attr({class:\\\"slicetext\\\",transform:\\\"\\\",\\\"text-anchor\\\":\\\"middle\\\"}).call(i.font,f(p,r,t._fullLayout.font)).call(o.convertToTspans,t);var l,u,h,g=i.bBox(e.node()),v=Math.min(r.BL[1],r.BR[1]),m=Math.max(r.TL[1],r.TR[1]);u=Math.max(r.TL[0],r.BL[0]),h=Math.min(r.TR[0],r.BR[0]),l=s(u,h,v,m,g,{isHorizontal:!0,constrained:!0,angle:0,anchor:\\\"middle\\\"}),e.attr(\\\"transform\\\",\\\"translate(\\\"+c+\\\",\\\"+d+\\\")\\\"+l)})}});var v=n.select(this).selectAll(\\\"g.titletext\\\").data(p.title.text?[0]:[]);v.enter().append(\\\"g\\\").classed(\\\"titletext\\\",!0),v.exit().remove(),v.each(function(){var e=a.ensureSingle(n.select(this),\\\"text\\\",\\\"\\\",function(t){t.attr(\\\"data-notex\\\",1)}),s=p.title.text;p._meta&&(s=a.templateString(s,p._meta)),e.text(s).attr({class:\\\"titletext\\\",transform:\\\"\\\",\\\"text-anchor\\\":\\\"middle\\\"}).call(i.font,p.title.font).call(o.convertToTspans,t);var l=d(h,r._size);e.attr(\\\"transform\\\",\\\"translate(\\\"+l.x+\\\",\\\"+l.y+\\\")\\\"+(l.scale<1?\\\"scale(\\\"+l.scale+\\\")\\\":\\\"\\\")+\\\"translate(\\\"+l.tx+\\\",\\\"+l.ty+\\\")\\\")})})})}},{\\\"../../components/drawing\\\":601,\\\"../../lib\\\":703,\\\"../../lib/svg_text_utils\\\":727,\\\"../bar/plot\\\":851,\\\"../pie/helpers\\\":1054,\\\"../pie/plot\\\":1058,d3:157}],971:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../pie/style_one\\\");e.exports=function(t){t._fullLayout._funnelarealayer.selectAll(\\\".trace\\\").each(function(t){var e=t[0].trace,r=n.select(this);r.style({opacity:e.opacity}),r.selectAll(\\\"path.surface\\\").each(function(t){n.select(this).call(i,t,e)})})}},{\\\"../pie/style_one\\\":1060,d3:157}],972:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../scatter/attributes\\\"),i=t(\\\"../../components/fx/hovertemplate_attributes\\\"),a=t(\\\"../../components/colorscale/attributes\\\"),o=t(\\\"../../lib/extend\\\").extendFlat;e.exports=o({z:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},x:o({},n.x,{impliedEdits:{xtype:\\\"array\\\"}}),x0:o({},n.x0,{impliedEdits:{xtype:\\\"scaled\\\"}}),dx:o({},n.dx,{impliedEdits:{xtype:\\\"scaled\\\"}}),y:o({},n.y,{impliedEdits:{ytype:\\\"array\\\"}}),y0:o({},n.y0,{impliedEdits:{ytype:\\\"scaled\\\"}}),dy:o({},n.dy,{impliedEdits:{ytype:\\\"scaled\\\"}}),text:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},hovertext:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},transpose:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"calc\\\"},xtype:{valType:\\\"enumerated\\\",values:[\\\"array\\\",\\\"scaled\\\"],editType:\\\"calc+clearAxisTypes\\\"},ytype:{valType:\\\"enumerated\\\",values:[\\\"array\\\",\\\"scaled\\\"],editType:\\\"calc+clearAxisTypes\\\"},zsmooth:{valType:\\\"enumerated\\\",values:[\\\"fast\\\",\\\"best\\\",!1],dflt:!1,editType:\\\"calc\\\"},connectgaps:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"calc\\\"},xgap:{valType:\\\"number\\\",dflt:0,min:0,editType:\\\"plot\\\"},ygap:{valType:\\\"number\\\",dflt:0,min:0,editType:\\\"plot\\\"},zhoverformat:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"none\\\"},hovertemplate:i()},{transforms:void 0},a(\\\"\\\",{cLetter:\\\"z\\\",autoColorDflt:!1}))},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../scatter/attributes\\\":1075}],973:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../plots/cartesian/axes\\\"),o=t(\\\"../histogram2d/calc\\\"),s=t(\\\"../../components/colorscale/calc\\\"),l=t(\\\"./convert_column_xyz\\\"),c=t(\\\"./clean_2d_array\\\"),u=t(\\\"./interp2d\\\"),f=t(\\\"./find_empties\\\"),h=t(\\\"./make_bound_array\\\");e.exports=function(t,e){var r,p,d,g,v,m,y,x,b,_=a.getFromId(t,e.xaxis||\\\"x\\\"),w=a.getFromId(t,e.yaxis||\\\"y\\\"),k=n.traceIs(e,\\\"contour\\\"),T=n.traceIs(e,\\\"histogram\\\"),A=n.traceIs(e,\\\"gl2d\\\"),M=k?\\\"best\\\":e.zsmooth;if(_._minDtick=0,w._minDtick=0,T)r=(b=o(t,e)).x,p=b.x0,d=b.dx,g=b.y,v=b.y0,m=b.dy,y=b.z;else{var S=e.z;i.isArray1D(S)?(l(e,_,w,\\\"x\\\",\\\"y\\\",[\\\"z\\\"]),r=e._x,g=e._y,S=e._z):(r=e._x=e.x?_.makeCalcdata(e,\\\"x\\\"):[],g=e._y=e.y?w.makeCalcdata(e,\\\"y\\\"):[]),p=e.x0,d=e.dx,v=e.y0,m=e.dy,y=c(S,e,_,w),(k||e.connectgaps)&&(e._emptypoints=f(y),u(y,e._emptypoints))}function E(t){M=e._input.zsmooth=e.zsmooth=!1,i.warn('cannot use zsmooth: \\\"fast\\\": '+t)}if(\\\"fast\\\"===M)if(\\\"log\\\"===_.type||\\\"log\\\"===w.type)E(\\\"log axis found\\\");else if(!T){if(r.length){var C=(r[r.length-1]-r[0])/(r.length-1),L=Math.abs(C/100);for(x=0;x<r.length-1;x++)if(Math.abs(r[x+1]-r[x]-C)>L){E(\\\"x scale is not linear\\\");break}}if(g.length&&\\\"fast\\\"===M){var z=(g[g.length-1]-g[0])/(g.length-1),O=Math.abs(z/100);for(x=0;x<g.length-1;x++)if(Math.abs(g[x+1]-g[x]-z)>O){E(\\\"y scale is not linear\\\");break}}}var I=i.maxRowLength(y),D=\\\"scaled\\\"===e.xtype?\\\"\\\":r,P=h(e,D,p,d,I,_),R=\\\"scaled\\\"===e.ytype?\\\"\\\":g,F=h(e,R,v,m,y.length,w);A||(e._extremes[_._id]=a.findExtremes(_,P),e._extremes[w._id]=a.findExtremes(w,F));var B={x:P,y:F,z:y,text:e._text||e.text,hovertext:e._hovertext||e.hovertext};if(D&&D.length===P.length-1&&(B.xCenter=D),R&&R.length===F.length-1&&(B.yCenter=R),T&&(B.xRanges=b.xRanges,B.yRanges=b.yRanges,B.pts=b.pts),k||s(t,e,{vals:y,cLetter:\\\"z\\\"}),k&&e.contours&&\\\"heatmap\\\"===e.contours.coloring){var N={type:\\\"contour\\\"===e.type?\\\"heatmap\\\":\\\"histogram2d\\\",xcalendar:e.xcalendar,ycalendar:e.ycalendar};B.xfill=h(N,D,p,d,I,_),B.yfill=h(N,R,v,m,y.length,w)}return[B]}},{\\\"../../components/colorscale/calc\\\":588,\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"../../registry\\\":831,\\\"../histogram2d/calc\\\":1004,\\\"./clean_2d_array\\\":974,\\\"./convert_column_xyz\\\":976,\\\"./find_empties\\\":978,\\\"./interp2d\\\":981,\\\"./make_bound_array\\\":982}],974:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../constants/numerical\\\").BADNUM;e.exports=function(t,e,r,o){var s,l,c,u,f,h;function p(t){if(n(t))return+t}if(e&&e.transpose){for(s=0,f=0;f<t.length;f++)s=Math.max(s,t[f].length);if(0===s)return!1;c=function(t){return t.length},u=function(t,e,r){return t[r][e]}}else s=t.length,c=function(t,e){return t[e].length},u=function(t,e,r){return t[e][r]};var d=function(t,e,r){return e===a||r===a?a:u(t,e,r)};function g(t){if(e&&\\\"carpet\\\"!==e.type&&\\\"contourcarpet\\\"!==e.type&&t&&\\\"category\\\"===t.type&&e[\\\"_\\\"+t._id.charAt(0)].length){var r=t._id.charAt(0),n={},o=e[\\\"_\\\"+r+\\\"CategoryMap\\\"]||e[r];for(f=0;f<o.length;f++)n[o[f]]=f;return function(e){var r=n[t._categories[e]];return r+1?r:a}}return i.identity}var v=g(r),m=g(o),y=new Array(s);for(o&&\\\"category\\\"===o.type&&(s=o._categories.length),f=0;f<s;f++)for(l=r&&\\\"category\\\"===r.type?r._categories.length:c(t,f),y[f]=new Array(l),h=0;h<l;h++)y[f][h]=p(d(t,m(f),v(h)));return y}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"fast-isnumeric\\\":224}],975:[function(t,e,r){\\\"use strict\\\";e.exports={min:\\\"zmin\\\",max:\\\"zmax\\\"}},{}],976:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../constants/numerical\\\").BADNUM;e.exports=function(t,e,r,a,o,s){var l,c,u,f,h=t._length,p=e.makeCalcdata(t,a),d=r.makeCalcdata(t,o),g=t.text,v=void 0!==g&&n.isArray1D(g),m=t.hovertext,y=void 0!==m&&n.isArray1D(m),x=n.distinctVals(p),b=x.vals,_=n.distinctVals(d),w=_.vals,k=[];for(l=0;l<s.length;l++)k[l]=n.init2dArray(w.length,b.length);for(v&&(u=n.init2dArray(w.length,b.length)),y&&(f=n.init2dArray(w.length,b.length)),l=0;l<h;l++)if(p[l]!==i&&d[l]!==i){var T=n.findBin(p[l]+x.minDiff/2,b),A=n.findBin(d[l]+_.minDiff/2,w);for(c=0;c<s.length;c++){var M=t[s[c]];k[c][A][T]=M[l]}v&&(u[A][T]=g[l]),y&&(f[A][T]=m[l])}for(t[\\\"_\\\"+a]=b,t[\\\"_\\\"+o]=w,c=0;c<s.length;c++)t[\\\"_\\\"+s[c]]=k[c];v&&(t._text=u),y&&(t._hovertext=f),e&&\\\"category\\\"===e.type&&(t[\\\"_\\\"+a+\\\"CategoryMap\\\"]=b.map(function(t){return e._categories[t]})),r&&\\\"category\\\"===r.type&&(t[\\\"_\\\"+o+\\\"CategoryMap\\\"]=w.map(function(t){return r._categories[t]}))}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703}],977:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./xyz_defaults\\\"),a=t(\\\"./style_defaults\\\"),o=t(\\\"../../components/colorscale/defaults\\\"),s=t(\\\"./attributes\\\");e.exports=function(t,e,r,l){function c(r,i){return n.coerce(t,e,s,r,i)}i(t,e,c,l)?(c(\\\"text\\\"),c(\\\"hovertext\\\"),c(\\\"hovertemplate\\\"),a(t,e,c,l),c(\\\"connectgaps\\\",n.isArray1D(e.z)&&!1!==e.zsmooth),o(t,e,l,c,{prefix:\\\"\\\",cLetter:\\\"z\\\"})):e.visible=!1}},{\\\"../../components/colorscale/defaults\\\":590,\\\"../../lib\\\":703,\\\"./attributes\\\":972,\\\"./style_defaults\\\":985,\\\"./xyz_defaults\\\":986}],978:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\").maxRowLength;e.exports=function(t){var e,r,i,a,o,s,l,c,u=[],f={},h=[],p=t[0],d=[],g=[0,0,0],v=n(t);for(r=0;r<t.length;r++)for(e=d,d=p,p=t[r+1]||[],i=0;i<v;i++)void 0===d[i]&&((s=(void 0!==d[i-1]?1:0)+(void 0!==d[i+1]?1:0)+(void 0!==e[i]?1:0)+(void 0!==p[i]?1:0))?(0===r&&s++,0===i&&s++,r===t.length-1&&s++,i===d.length-1&&s++,s<4&&(f[[r,i]]=[r,i,s]),u.push([r,i,s])):h.push([r,i]));for(;h.length;){for(l={},c=!1,o=h.length-1;o>=0;o--)(s=((f[[(r=(a=h[o])[0])-1,i=a[1]]]||g)[2]+(f[[r+1,i]]||g)[2]+(f[[r,i-1]]||g)[2]+(f[[r,i+1]]||g)[2])/20)&&(l[a]=[r,i,s],h.splice(o,1),c=!0);if(!c)throw\\\"findEmpties iterated with no new neighbors\\\";for(a in l)f[a]=l[a],u.push(l[a])}return u.sort(function(t,e){return e[2]-t[2]})}},{\\\"../../lib\\\":703}],979:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/fx\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../plots/cartesian/axes\\\"),o=t(\\\"../../components/colorscale\\\").extractOpts;e.exports=function(t,e,r,s,l,c){var u,f,h,p,d=t.cd[0],g=d.trace,v=t.xa,m=t.ya,y=d.x,x=d.y,b=d.z,_=d.xCenter,w=d.yCenter,k=d.zmask,T=g.zhoverformat,A=y,M=x;if(!1!==t.index){try{h=Math.round(t.index[1]),p=Math.round(t.index[0])}catch(e){return void i.error(\\\"Error hovering on heatmap, pointNumber must be [row,col], found:\\\",t.index)}if(h<0||h>=b[0].length||p<0||p>b.length)return}else{if(n.inbox(e-y[0],e-y[y.length-1],0)>0||n.inbox(r-x[0],r-x[x.length-1],0)>0)return;if(c){var S;for(A=[2*y[0]-y[1]],S=1;S<y.length;S++)A.push((y[S]+y[S-1])/2);for(A.push([2*y[y.length-1]-y[y.length-2]]),M=[2*x[0]-x[1]],S=1;S<x.length;S++)M.push((x[S]+x[S-1])/2);M.push([2*x[x.length-1]-x[x.length-2]])}h=Math.max(0,Math.min(A.length-2,i.findBin(e,A))),p=Math.max(0,Math.min(M.length-2,i.findBin(r,M)))}var E=v.c2p(y[h]),C=v.c2p(y[h+1]),L=m.c2p(x[p]),z=m.c2p(x[p+1]);c?(C=E,u=y[h],z=L,f=x[p]):(u=_?_[h]:(y[h]+y[h+1])/2,f=w?w[p]:(x[p]+x[p+1])/2,v&&\\\"category\\\"===v.type&&(u=y[h]),m&&\\\"category\\\"===m.type&&(f=x[p]),g.zsmooth&&(E=C=v.c2p(u),L=z=m.c2p(f)));var O,I=b[p][h];k&&!k[p][h]&&(I=void 0),Array.isArray(d.hovertext)&&Array.isArray(d.hovertext[p])?O=d.hovertext[p][h]:Array.isArray(d.text)&&Array.isArray(d.text[p])&&(O=d.text[p][h]);var D=o(g),P={type:\\\"linear\\\",range:[D.min,D.max],hoverformat:T,_separators:v._separators,_numFormat:v._numFormat},R=a.tickText(P,I,\\\"hover\\\").text;return[i.extendFlat(t,{index:[p,h],distance:t.maxHoverDistance,spikeDistance:t.maxSpikeDistance,x0:E,x1:C,y0:L,y1:z,xLabelVal:u,yLabelVal:f,zLabelVal:I,zLabel:R,text:O})]}},{\\\"../../components/colorscale\\\":592,\\\"../../components/fx\\\":619,\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751}],980:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),calc:t(\\\"./calc\\\"),plot:t(\\\"./plot\\\"),colorbar:t(\\\"./colorbar\\\"),style:t(\\\"./style\\\"),hoverPoints:t(\\\"./hover\\\"),moduleType:\\\"trace\\\",name:\\\"heatmap\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"cartesian\\\",\\\"svg\\\",\\\"2dMap\\\"],meta:{}}},{\\\"../../plots/cartesian\\\":762,\\\"./attributes\\\":972,\\\"./calc\\\":973,\\\"./colorbar\\\":975,\\\"./defaults\\\":977,\\\"./hover\\\":979,\\\"./plot\\\":983,\\\"./style\\\":984}],981:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=[[-1,0],[1,0],[0,-1],[0,1]];function a(t){return.5-.25*Math.min(1,.5*t)}function o(t,e,r){var n,a,o,s,l,c,u,f,h,p,d,g,v,m=0;for(s=0;s<e.length;s++){for(a=(n=e[s])[0],o=n[1],d=t[a][o],p=0,h=0,l=0;l<4;l++)(u=t[a+(c=i[l])[0]])&&void 0!==(f=u[o+c[1]])&&(0===p?g=v=f:(g=Math.min(g,f),v=Math.max(v,f)),h++,p+=f);if(0===h)throw\\\"iterateInterp2d order is wrong: no defined neighbors\\\";t[a][o]=p/h,void 0===d?h<4&&(m=1):(t[a][o]=(1+r)*t[a][o]-r*d,v>g&&(m=Math.max(m,Math.abs(t[a][o]-d)/(v-g))))}return m}e.exports=function(t,e){var r,i=1;for(o(t,e),r=0;r<e.length&&!(e[r][2]<4);r++);for(e=e.slice(r),r=0;r<100&&i>.01;r++)i=o(t,e,a(i));return i>.01&&n.log(\\\"interp2d didn't converge quickly\\\",i),t}},{\\\"../../lib\\\":703}],982:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../lib\\\").isArrayOrTypedArray;e.exports=function(t,e,r,a,o,s){var l,c,u,f=[],h=n.traceIs(t,\\\"contour\\\"),p=n.traceIs(t,\\\"histogram\\\"),d=n.traceIs(t,\\\"gl2d\\\");if(i(e)&&e.length>1&&!p&&\\\"category\\\"!==s.type){var g=e.length;if(!(g<=o))return h?e.slice(0,o):e.slice(0,o+1);if(h||d)f=e.slice(0,o);else if(1===o)f=[e[0]-.5,e[0]+.5];else{for(f=[1.5*e[0]-.5*e[1]],u=1;u<g;u++)f.push(.5*(e[u-1]+e[u]));f.push(1.5*e[g-1]-.5*e[g-2])}if(g<o){var v=f[f.length-1],m=v-f[f.length-2];for(u=g;u<o;u++)v+=m,f.push(v)}}else{var y=t[s._id.charAt(0)+\\\"calendar\\\"];if(p)l=s.r2c(r,0,y);else if(i(e)&&1===e.length)l=e[0];else if(void 0===r)l=0;else{l=(\\\"log\\\"===s.type?s.d2c:s.r2c)(r,0,y)}for(c=a||1,u=h||d?0:-.5;u<o;u++)f.push(l+c*u)}return f}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831}],983:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"tinycolor2\\\"),a=t(\\\"../../registry\\\"),o=t(\\\"../../lib\\\"),s=t(\\\"../../components/colorscale\\\").makeColorScaleFuncFromTrace,l=t(\\\"../../constants/xmlns_namespaces\\\");function c(t,e){var r=e.length-2,n=o.constrain(o.findBin(t,e),0,r),i=e[n],a=e[n+1],s=o.constrain(n+(t-i)/(a-i)-.5,0,r),l=Math.round(s),c=Math.abs(s-l);return s&&s!==r&&c?{bin0:l,frac:c,bin1:Math.round(l+c/(s-l))}:{bin0:l,bin1:l,frac:0}}function u(t,e){var r=e.length-1,n=o.constrain(o.findBin(t,e),0,r),i=e[n],a=(t-i)/(e[n+1]-i)||0;return a<=0?{bin0:n,bin1:n,frac:0}:a<.5?{bin0:n,bin1:n+1,frac:a}:{bin0:n+1,bin1:n,frac:1-a}}function f(t,e,r){t[e]=r[0],t[e+1]=r[1],t[e+2]=r[2],t[e+3]=Math.round(255*r[3])}e.exports=function(t,e,r,h){var p=e.xaxis,d=e.yaxis;o.makeTraceGroups(h,r,\\\"hm\\\").each(function(e){var r,h,g,v,m,y,x=n.select(this),b=e[0],_=b.trace,w=b.z,k=b.x,T=b.y,A=b.xCenter,M=b.yCenter,S=a.traceIs(_,\\\"contour\\\"),E=S?\\\"best\\\":_.zsmooth,C=w.length,L=o.maxRowLength(w),z=!1,O=!1;for(y=0;void 0===r&&y<k.length-1;)r=p.c2p(k[y]),y++;for(y=k.length-1;void 0===h&&y>0;)h=p.c2p(k[y]),y--;for(h<r&&(g=h,h=r,r=g,z=!0),y=0;void 0===v&&y<T.length-1;)v=d.c2p(T[y]),y++;for(y=T.length-1;void 0===m&&y>0;)m=d.c2p(T[y]),y--;if(m<v&&(g=v,v=m,m=g,O=!0),S&&(A=k,M=T,k=b.xfill,T=b.yfill),\\\"fast\\\"!==E){var I=\\\"best\\\"===E?0:.5;r=Math.max(-I*p._length,r),h=Math.min((1+I)*p._length,h),v=Math.max(-I*d._length,v),m=Math.min((1+I)*d._length,m)}var D=Math.round(h-r),P=Math.round(m-v);if(D<=0||P<=0){x.selectAll(\\\"image\\\").data([]).exit().remove()}else{var R,F;\\\"fast\\\"===E?(R=L,F=C):(R=D,F=P);var B=document.createElement(\\\"canvas\\\");B.width=R,B.height=F;var N,j,V=B.getContext(\\\"2d\\\"),U=s(_,{noNumericCheck:!0,returnArray:!0});\\\"fast\\\"===E?(N=z?function(t){return L-1-t}:o.identity,j=O?function(t){return C-1-t}:o.identity):(N=function(t){return o.constrain(Math.round(p.c2p(k[t])-r),0,D)},j=function(t){return o.constrain(Math.round(d.c2p(T[t])-v),0,P)});var H,q,G,Y,W,X=j(0),Z=[X,X],$=z?0:1,J=O?0:1,K=0,Q=0,tt=0,et=0;if(E){var rt,nt=0;try{rt=new Uint8Array(D*P*4)}catch(t){rt=new Array(D*P*4)}if(\\\"best\\\"===E){var it,at,ot,st=A||k,lt=M||T,ct=new Array(st.length),ut=new Array(lt.length),ft=new Array(D),ht=A?u:c,pt=M?u:c;for(y=0;y<st.length;y++)ct[y]=Math.round(p.c2p(st[y])-r);for(y=0;y<lt.length;y++)ut[y]=Math.round(d.c2p(lt[y])-v);for(y=0;y<D;y++)ft[y]=ht(y,ct);for(q=0;q<P;q++)for(at=w[(it=pt(q,ut)).bin0],ot=w[it.bin1],y=0;y<D;y++,nt+=4)f(rt,nt,W=Tt(at,ot,ft[y],it))}else for(q=0;q<C;q++)for(Y=w[q],Z=j(q),y=0;y<D;y++)W=kt(Y[y],1),f(rt,nt=4*(Z*D+N(y)),W);var dt=V.createImageData(D,P);try{dt.data.set(rt)}catch(t){var gt=dt.data,vt=gt.length;for(q=0;q<vt;q++)gt[q]=rt[q]}V.putImageData(dt,0,0)}else{var mt=_.xgap,yt=_.ygap,xt=Math.floor(mt/2),bt=Math.floor(yt/2);for(q=0;q<C;q++)if(Y=w[q],Z.reverse(),Z[J]=j(q+1),Z[0]!==Z[1]&&void 0!==Z[0]&&void 0!==Z[1])for(H=[G=N(0),G],y=0;y<L;y++)H.reverse(),H[$]=N(y+1),H[0]!==H[1]&&void 0!==H[0]&&void 0!==H[1]&&(W=kt(Y[y],(H[1]-H[0])*(Z[1]-Z[0])),V.fillStyle=\\\"rgba(\\\"+W.join(\\\",\\\")+\\\")\\\",V.fillRect(H[0]+xt,Z[0]+bt,H[1]-H[0]-mt,Z[1]-Z[0]-yt))}Q=Math.round(Q/K),tt=Math.round(tt/K),et=Math.round(et/K);var _t=i(\\\"rgb(\\\"+Q+\\\",\\\"+tt+\\\",\\\"+et+\\\")\\\");t._hmpixcount=(t._hmpixcount||0)+K,t._hmlumcount=(t._hmlumcount||0)+K*_t.getLuminance();var wt=x.selectAll(\\\"image\\\").data(e);wt.enter().append(\\\"svg:image\\\").attr({xmlns:l.svg,preserveAspectRatio:\\\"none\\\"}),wt.attr({height:P,width:D,x:r,y:v,\\\"xlink:href\\\":B.toDataURL(\\\"image/png\\\")})}function kt(t,e){if(void 0!==t){var r=U(t);return r[0]=Math.round(r[0]),r[1]=Math.round(r[1]),r[2]=Math.round(r[2]),K+=e,Q+=r[0]*e,tt+=r[1]*e,et+=r[2]*e,r}return[0,0,0,0]}function Tt(t,e,r,n){var i=t[r.bin0];if(void 0===i)return kt(void 0,1);var a,o=t[r.bin1],s=e[r.bin0],l=e[r.bin1],c=o-i||0,u=s-i||0;return a=void 0===o?void 0===l?0:void 0===s?2*(l-i):2*(2*l-s-i)/3:void 0===l?void 0===s?0:2*(2*i-o-s)/3:void 0===s?2*(2*l-o-i)/3:l+i-o-s,kt(i+r.frac*c+n.frac*(u+r.frac*a))}})}},{\\\"../../components/colorscale\\\":592,\\\"../../constants/xmlns_namespaces\\\":681,\\\"../../lib\\\":703,\\\"../../registry\\\":831,d3:157,tinycolor2:524}],984:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\");e.exports=function(t){n.select(t).selectAll(\\\".hm image\\\").style(\\\"opacity\\\",function(t){return t.trace.opacity})}},{d3:157}],985:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){!1===r(\\\"zsmooth\\\")&&(r(\\\"xgap\\\"),r(\\\"ygap\\\")),r(\\\"zhoverformat\\\")}},{}],986:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../registry\\\");function o(t,e){var r=e(t);return\\\"scaled\\\"===(r?e(t+\\\"type\\\",\\\"array\\\"):\\\"scaled\\\")&&(e(t+\\\"0\\\"),e(\\\"d\\\"+t)),r}e.exports=function(t,e,r,s,l,c){var u,f,h=r(\\\"z\\\");if(l=l||\\\"x\\\",c=c||\\\"y\\\",void 0===h||!h.length)return 0;if(i.isArray1D(t.z)){u=r(l),f=r(c);var p=i.minRowLength(u),d=i.minRowLength(f);if(0===p||0===d)return 0;e._length=Math.min(p,d,h.length)}else{if(u=o(l,r),f=o(c,r),!function(t){for(var e,r=!0,a=!1,o=!1,s=0;s<t.length;s++){if(e=t[s],!i.isArrayOrTypedArray(e)){r=!1;break}e.length>0&&(a=!0);for(var l=0;l<e.length;l++)if(n(e[l])){o=!0;break}}return r&&a&&o}(h))return 0;r(\\\"transpose\\\"),e._length=null}return a.getComponentMethod(\\\"calendars\\\",\\\"handleTraceDefaults\\\")(t,e,[l,c],s),!0}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"fast-isnumeric\\\":224}],987:[function(t,e,r){\\\"use strict\\\";for(var n=t(\\\"../heatmap/attributes\\\"),i=t(\\\"../../components/colorscale/attributes\\\"),a=t(\\\"../../lib/extend\\\").extendFlat,o=t(\\\"../../plot_api/edit_types\\\").overrideAll,s=[\\\"z\\\",\\\"x\\\",\\\"x0\\\",\\\"dx\\\",\\\"y\\\",\\\"y0\\\",\\\"dy\\\",\\\"text\\\",\\\"transpose\\\",\\\"xtype\\\",\\\"ytype\\\"],l={},c=0;c<s.length;c++){var u=s[c];l[u]=n[u]}a(l,i(\\\"\\\",{cLetter:\\\"z\\\",autoColorDflt:!1})),e.exports=o(l,\\\"calc\\\",\\\"nested\\\")},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../lib/extend\\\":693,\\\"../../plot_api/edit_types\\\":734,\\\"../heatmap/attributes\\\":972}],988:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-heatmap2d\\\"),i=t(\\\"../../plots/cartesian/axes\\\"),a=t(\\\"../../lib/str2rgbarray\\\");function o(t,e){this.scene=t,this.uid=e,this.type=\\\"heatmapgl\\\",this.name=\\\"\\\",this.hoverinfo=\\\"all\\\",this.xData=[],this.yData=[],this.zData=[],this.textLabels=[],this.idToIndex=[],this.bounds=[0,0,0,0],this.options={z:[],x:[],y:[],shape:[0,0],colorLevels:[0],colorValues:[0,0,0,1]},this.heatmap=n(t.glplot,this.options),this.heatmap._trace=this}var s=o.prototype;s.handlePick=function(t){var e=this.options,r=e.shape,n=t.pointId,i=n%r[0],a=Math.floor(n/r[0]),o=n;return{trace:this,dataCoord:t.dataCoord,traceCoord:[e.x[i],e.y[a],e.z[o]],textLabel:this.textLabels[n],name:this.name,pointIndex:[a,i],hoverinfo:this.hoverinfo}},s.update=function(t,e){var r=e[0];this.index=t.index,this.name=t.name,this.hoverinfo=t.hoverinfo;var n=r.z;this.options.z=[].concat.apply([],n);var o=n[0].length,s=n.length;this.options.shape=[o,s],this.options.x=r.x,this.options.y=r.y;var l=function(t){for(var e=t.colorscale,r=t.zmin,n=t.zmax,i=e.length,o=new Array(i),s=new Array(4*i),l=0;l<i;l++){var c=e[l],u=a(c[1]);o[l]=r+c[0]*(n-r);for(var f=0;f<4;f++)s[4*l+f]=u[f]}return{colorLevels:o,colorValues:s}}(t);this.options.colorLevels=l.colorLevels,this.options.colorValues=l.colorValues,this.textLabels=[].concat.apply([],t.text),this.heatmap.update(this.options);var c=this.scene.xaxis,u=this.scene.yaxis;t._extremes[c._id]=i.findExtremes(c,r.x),t._extremes[u._id]=i.findExtremes(u,r.y)},s.dispose=function(){this.heatmap.dispose()},e.exports=function(t,e,r){var n=new o(t,e.uid);return n.update(e,r),n}},{\\\"../../lib/str2rgbarray\\\":726,\\\"../../plots/cartesian/axes\\\":751,\\\"gl-heatmap2d\\\":250}],989:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"../heatmap/defaults\\\"),colorbar:t(\\\"../heatmap/colorbar\\\"),calc:t(\\\"../heatmap/calc\\\"),plot:t(\\\"./convert\\\"),moduleType:\\\"trace\\\",name:\\\"heatmapgl\\\",basePlotModule:t(\\\"../../plots/gl2d\\\"),categories:[\\\"gl\\\",\\\"gl2d\\\",\\\"2dMap\\\"],meta:{}}},{\\\"../../plots/gl2d\\\":789,\\\"../heatmap/calc\\\":973,\\\"../heatmap/colorbar\\\":975,\\\"../heatmap/defaults\\\":977,\\\"./attributes\\\":987,\\\"./convert\\\":988}],990:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../bar/attributes\\\"),i=t(\\\"../../components/fx/hovertemplate_attributes\\\"),a=t(\\\"./bin_attributes\\\"),o=t(\\\"./constants\\\"),s=t(\\\"../../lib/extend\\\").extendFlat;e.exports={x:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},y:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},text:s({},n.text,{}),hovertext:s({},n.hovertext,{}),orientation:n.orientation,histfunc:{valType:\\\"enumerated\\\",values:[\\\"count\\\",\\\"sum\\\",\\\"avg\\\",\\\"min\\\",\\\"max\\\"],dflt:\\\"count\\\",editType:\\\"calc\\\"},histnorm:{valType:\\\"enumerated\\\",values:[\\\"\\\",\\\"percent\\\",\\\"probability\\\",\\\"density\\\",\\\"probability density\\\"],dflt:\\\"\\\",editType:\\\"calc\\\"},cumulative:{enabled:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"calc\\\"},direction:{valType:\\\"enumerated\\\",values:[\\\"increasing\\\",\\\"decreasing\\\"],dflt:\\\"increasing\\\",editType:\\\"calc\\\"},currentbin:{valType:\\\"enumerated\\\",values:[\\\"include\\\",\\\"exclude\\\",\\\"half\\\"],dflt:\\\"include\\\",editType:\\\"calc\\\"},editType:\\\"calc\\\"},nbinsx:{valType:\\\"integer\\\",min:0,dflt:0,editType:\\\"calc\\\"},xbins:a(\\\"x\\\",!0),nbinsy:{valType:\\\"integer\\\",min:0,dflt:0,editType:\\\"calc\\\"},ybins:a(\\\"y\\\",!0),autobinx:{valType:\\\"boolean\\\",dflt:null,editType:\\\"calc\\\"},autobiny:{valType:\\\"boolean\\\",dflt:null,editType:\\\"calc\\\"},bingroup:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"calc\\\"},hovertemplate:i({},{keys:o.eventDataKeys}),marker:n.marker,offsetgroup:n.offsetgroup,alignmentgroup:n.alignmentgroup,selected:n.selected,unselected:n.unselected,_deprecated:{bardir:n._deprecated.bardir}}},{\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../bar/attributes\\\":841,\\\"./bin_attributes\\\":992,\\\"./constants\\\":996}],991:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){for(var r=t.length,n=0,i=0;i<r;i++)e[i]?(t[i]/=e[i],n+=t[i]):t[i]=null;return n}},{}],992:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){return{start:{valType:\\\"any\\\",editType:\\\"calc\\\"},end:{valType:\\\"any\\\",editType:\\\"calc\\\"},size:{valType:\\\"any\\\",editType:\\\"calc\\\"},editType:\\\"calc\\\"}}},{}],993:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\");e.exports={count:function(t,e,r){return r[t]++,1},sum:function(t,e,r,i){var a=i[e];return n(a)?(a=Number(a),r[t]+=a,a):0},avg:function(t,e,r,i,a){var o=i[e];return n(o)&&(o=Number(o),r[t]+=o,a[t]++),0},min:function(t,e,r,i){var a=i[e];if(n(a)){if(a=Number(a),!n(r[t]))return r[t]=a,a;if(r[t]>a){var o=a-r[t];return r[t]=a,o}}return 0},max:function(t,e,r,i){var a=i[e];if(n(a)){if(a=Number(a),!n(r[t]))return r[t]=a,a;if(r[t]<a){var o=a-r[t];return r[t]=a,o}}return 0}}},{\\\"fast-isnumeric\\\":224}],994:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../constants/numerical\\\"),i=n.ONEAVGYEAR,a=n.ONEAVGMONTH,o=n.ONEDAY,s=n.ONEHOUR,l=n.ONEMIN,c=n.ONESEC,u=t(\\\"../../plots/cartesian/axes\\\").tickIncrement;function f(t,e,r,n){if(t*e<=0)return 1/0;for(var i=Math.abs(e-t),a=\\\"date\\\"===r.type,o=h(i,a),s=0;s<10;s++){var l=h(80*o,a);if(o===l)break;if(!p(l,t,e,a,r,n))break;o=l}return o}function h(t,e){return e&&t>c?t>o?t>1.1*i?i:t>1.1*a?a:o:t>s?s:t>l?l:c:Math.pow(10,Math.floor(Math.log(t)/Math.LN10))}function p(t,e,r,n,a,s){if(n&&t>o){var l=d(e,a,s),c=d(r,a,s),u=t===i?0:1;return l[u]!==c[u]}return Math.floor(r/t)-Math.floor(e/t)>.1}function d(t,e,r){var n=e.c2d(t,i,r).split(\\\"-\\\");return\\\"\\\"===n[0]&&(n.unshift(),n[0]=\\\"-\\\"+n[0]),n}e.exports=function(t,e,r,n,a){var s,l,c=-1.1*e,h=-.1*e,p=t-h,d=r[0],g=r[1],v=Math.min(f(d+h,d+p,n,a),f(g+h,g+p,n,a)),m=Math.min(f(d+c,d+h,n,a),f(g+c,g+h,n,a));if(v>m&&m<Math.abs(g-d)/4e3?(s=v,l=!1):(s=Math.min(v,m),l=!0),\\\"date\\\"===n.type&&s>o){var y=s===i?1:6,x=s===i?\\\"M12\\\":\\\"M1\\\";return function(e,r){var o=n.c2d(e,i,a),s=o.indexOf(\\\"-\\\",y);s>0&&(o=o.substr(0,s));var c=n.d2c(o,0,a);if(c<e){var f=u(c,x,!1,a);(c+f)/2<e+t&&(c=f)}return r&&l?u(c,x,!0,a):c}}return function(e,r){var n=s*Math.round(e/s);return n+s/10<e&&n+.9*s<e+t&&(n+=s),r&&l&&(n-=s),n}}},{\\\"../../constants/numerical\\\":680,\\\"../../plots/cartesian/axes\\\":751}],995:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../registry\\\"),o=t(\\\"../../plots/cartesian/axes\\\"),s=t(\\\"../bar/arrays_to_calcdata\\\"),l=t(\\\"./bin_functions\\\"),c=t(\\\"./norm_functions\\\"),u=t(\\\"./average\\\"),f=t(\\\"./bin_label_vals\\\");function h(t,e,r,s,l){var c,u,f,p,d,g,v,m=s+\\\"bins\\\",y=t._fullLayout,x=e[\\\"_\\\"+s+\\\"bingroup\\\"],b=y._histogramBinOpts[x],_=\\\"overlay\\\"===y.barmode,w=function(t){return r.r2c(t,0,p)},k=function(t){return r.c2r(t,0,p)},T=\\\"date\\\"===r.type?function(t){return t||0===t?i.cleanDate(t,null,p):null}:function(t){return n(t)?Number(t):null};function A(t,e,r){e[t+\\\"Found\\\"]?(e[t]=T(e[t]),null===e[t]&&(e[t]=r[t])):(g[t]=e[t]=r[t],i.nestedProperty(u[0],m+\\\".\\\"+t).set(r[t]))}if(e[\\\"_\\\"+s+\\\"autoBinFinished\\\"])delete e[\\\"_\\\"+s+\\\"autoBinFinished\\\"];else{u=b.traces;var M=[],S=!0,E=!1,C=!1;for(c=0;c<u.length;c++)if((f=u[c]).visible){var L=b.dirs[c];d=f[\\\"_\\\"+L+\\\"pos0\\\"]=r.makeCalcdata(f,L),M=i.concat(M,d),delete f[\\\"_\\\"+s+\\\"autoBinFinished\\\"],!0===e.visible&&(S?S=!1:(delete f._autoBin,f[\\\"_\\\"+s+\\\"autoBinFinished\\\"]=1),a.traceIs(f,\\\"2dMap\\\")&&(E=!0),\\\"histogram2dcontour\\\"===f.type&&(C=!0))}p=u[0][s+\\\"calendar\\\"];var z=o.autoBin(M,r,b.nbins,E,p,b.sizeFound&&b.size),O=u[0]._autoBin={};if(g=O[b.dirs[0]]={},C&&(b.size||(z.start=k(o.tickIncrement(w(z.start),z.size,!0,p))),void 0===b.end&&(z.end=k(o.tickIncrement(w(z.end),z.size,!1,p)))),_&&!a.traceIs(e,\\\"2dMap\\\")&&0===z._dataSpan&&\\\"category\\\"!==r.type&&\\\"multicategory\\\"!==r.type){if(l)return[z,d,!0];z=function(t,e,r,n,a){var o,s,l,c=t._fullLayout,u=function(t,e){for(var r=e.xaxis,n=e.yaxis,i=e.orientation,a=[],o=t._fullData,s=0;s<o.length;s++){var l=o[s];\\\"histogram\\\"===l.type&&!0===l.visible&&l.orientation===i&&l.xaxis===r&&l.yaxis===n&&a.push(l)}return a}(t,e),f=!1,p=1/0,d=[e];for(o=0;o<u.length;o++)if((s=u[o])===e)f=!0;else if(f){var g=h(t,s,r,n,!0),v=g[0],m=g[2];s[\\\"_\\\"+n+\\\"autoBinFinished\\\"]=1,s[\\\"_\\\"+n+\\\"pos0\\\"]=g[1],m?d.push(s):p=Math.min(p,v.size)}else l=c._histogramBinOpts[s[\\\"_\\\"+n+\\\"bingroup\\\"]],p=Math.min(p,l.size||s[a].size);var y=new Array(d.length);for(o=0;o<d.length;o++)for(var x=d[o][\\\"_\\\"+n+\\\"pos0\\\"],b=0;b<x.length;b++)if(void 0!==x[b]){y[o]=x[b];break}isFinite(p)||(p=i.distinctVals(y).minDiff);for(o=0;o<d.length;o++){var _=(s=d[o])[n+\\\"calendar\\\"],w={start:r.c2r(y[o]-p/2,0,_),end:r.c2r(y[o]+p/2,0,_),size:p};s._input[a]=s[a]=w,(l=c._histogramBinOpts[s[\\\"_\\\"+n+\\\"bingroup\\\"]])&&i.extendFlat(l,w)}return e[a]}(t,e,r,s,m)}(v=f.cumulative||{}).enabled&&\\\"include\\\"!==v.currentbin&&(\\\"decreasing\\\"===v.direction?z.start=k(o.tickIncrement(w(z.start),z.size,!0,p)):z.end=k(o.tickIncrement(w(z.end),z.size,!1,p))),b.size=z.size,b.sizeFound||(g.size=z.size,i.nestedProperty(u[0],m+\\\".size\\\").set(z.size)),A(\\\"start\\\",b,z),A(\\\"end\\\",b,z)}d=e[\\\"_\\\"+s+\\\"pos0\\\"],delete e[\\\"_\\\"+s+\\\"pos0\\\"];var I=e._input[m]||{},D=i.extendFlat({},b),P=b.start,R=r.r2l(I.start),F=void 0!==R;if((b.startFound||F)&&R!==r.r2l(P)){var B=F?R:i.aggNums(Math.min,null,d),N={type:\\\"category\\\"===r.type||\\\"multicategory\\\"===r.type?\\\"linear\\\":r.type,r2l:r.r2l,dtick:b.size,tick0:P,calendar:p,range:[B,o.tickIncrement(B,b.size,!1,p)].map(r.l2r)},j=o.tickFirst(N);j>r.r2l(B)&&(j=o.tickIncrement(j,b.size,!0,p)),D.start=r.l2r(j),F||i.nestedProperty(e,m+\\\".start\\\").set(D.start)}var V=b.end,U=r.r2l(I.end),H=void 0!==U;if((b.endFound||H)&&U!==r.r2l(V)){var q=H?U:i.aggNums(Math.max,null,d);D.end=r.l2r(q),H||i.nestedProperty(e,m+\\\".start\\\").set(D.end)}var G=\\\"autobin\\\"+s;return!1===e._input[G]&&(e._input[m]=i.extendFlat({},e[m]||{}),delete e._input[G],delete e[G]),[D,d]}e.exports={calc:function(t,e){var r,a,p,d,g=[],v=[],m=o.getFromId(t,\\\"h\\\"===e.orientation?e.yaxis:e.xaxis),y=\\\"h\\\"===e.orientation?\\\"y\\\":\\\"x\\\",x={x:\\\"y\\\",y:\\\"x\\\"}[y],b=e[y+\\\"calendar\\\"],_=e.cumulative,w=h(t,e,m,y),k=w[0],T=w[1],A=\\\"string\\\"==typeof k.size,M=[],S=A?M:k,E=[],C=[],L=[],z=0,O=e.histnorm,I=e.histfunc,D=-1!==O.indexOf(\\\"density\\\");_.enabled&&D&&(O=O.replace(/ ?density$/,\\\"\\\"),D=!1);var P,R=\\\"max\\\"===I||\\\"min\\\"===I?null:0,F=l.count,B=c[O],N=!1,j=function(t){return m.r2c(t,0,b)};for(i.isArrayOrTypedArray(e[x])&&\\\"count\\\"!==I&&(P=e[x],N=\\\"avg\\\"===I,F=l[I]),r=j(k.start),p=j(k.end)+(r-o.tickIncrement(r,k.size,!1,b))/1e6;r<p&&g.length<1e6&&(a=o.tickIncrement(r,k.size,!1,b),g.push((r+a)/2),v.push(R),L.push([]),M.push(r),D&&E.push(1/(a-r)),N&&C.push(0),!(a<=r));)r=a;M.push(r),A||\\\"date\\\"!==m.type||(S={start:j(S.start),end:j(S.end),size:S.size});var V,U=v.length,H=!0,q=1/0,G=1/0,Y={};for(r=0;r<T.length;r++){var W=T[r];(d=i.findBin(W,S))>=0&&d<U&&(z+=F(d,r,v,P,C),H&&L[d].length&&W!==T[L[d][0]]&&(H=!1),L[d].push(r),Y[r]=d,q=Math.min(q,W-M[d]),G=Math.min(G,M[d+1]-W))}H||(V=f(q,G,M,m,b)),N&&(z=u(v,C)),B&&B(v,z,E),_.enabled&&function(t,e,r){var n,i,a;function o(e){a=t[e],t[e]/=2}function s(e){i=t[e],t[e]=a+i/2,a+=i}if(\\\"half\\\"===r)if(\\\"increasing\\\"===e)for(o(0),n=1;n<t.length;n++)s(n);else for(o(t.length-1),n=t.length-2;n>=0;n--)s(n);else if(\\\"increasing\\\"===e){for(n=1;n<t.length;n++)t[n]+=t[n-1];\\\"exclude\\\"===r&&(t.unshift(0),t.pop())}else{for(n=t.length-2;n>=0;n--)t[n]+=t[n+1];\\\"exclude\\\"===r&&(t.push(0),t.shift())}}(v,_.direction,_.currentbin);var X=Math.min(g.length,v.length),Z=[],$=0,J=X-1;for(r=0;r<X;r++)if(v[r]){$=r;break}for(r=X-1;r>=$;r--)if(v[r]){J=r;break}for(r=$;r<=J;r++)if(n(g[r])&&n(v[r])){var K={p:g[r],s:v[r],b:0};_.enabled||(K.pts=L[r],H?K.ph0=K.ph1=L[r].length?T[L[r][0]]:g[r]:(K.ph0=V(M[r]),K.ph1=V(M[r+1],!0))),Z.push(K)}return 1===Z.length&&(Z[0].width1=o.tickIncrement(Z[0].p,k.size,!1,b)-Z[0].p),s(Z,e),i.isArrayOrTypedArray(e.selectedpoints)&&i.tagSelected(Z,e,Y),Z},calcAllAutoBins:h}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"../../registry\\\":831,\\\"../bar/arrays_to_calcdata\\\":840,\\\"./average\\\":991,\\\"./bin_functions\\\":993,\\\"./bin_label_vals\\\":994,\\\"./norm_functions\\\":1002,\\\"fast-isnumeric\\\":224}],996:[function(t,e,r){\\\"use strict\\\";e.exports={eventDataKeys:[\\\"binNumber\\\"]}},{}],997:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plots/cartesian/axis_ids\\\"),a=t(\\\"../../registry\\\").traceIs,o=t(\\\"../bar/defaults\\\").handleGroupingDefaults,s=n.nestedProperty,l=i.getAxisGroup,c=[{aStr:{x:\\\"xbins.start\\\",y:\\\"ybins.start\\\"},name:\\\"start\\\"},{aStr:{x:\\\"xbins.end\\\",y:\\\"ybins.end\\\"},name:\\\"end\\\"},{aStr:{x:\\\"xbins.size\\\",y:\\\"ybins.size\\\"},name:\\\"size\\\"},{aStr:{x:\\\"nbinsx\\\",y:\\\"nbinsy\\\"},name:\\\"nbins\\\"}],u=[\\\"x\\\",\\\"y\\\"];e.exports=function(t,e){var r,f,h,p,d,g,v,m=e._histogramBinOpts={},y=[],x={},b=[];function _(t,e){return n.coerce(r._input,r,r._module.attributes,t,e)}function w(t){return\\\"v\\\"===t.orientation?\\\"x\\\":\\\"y\\\"}function k(t,r,a){var o=t.uid+\\\"__\\\"+a;r||(r=o);var s=function(t,r){return i.getFromTrace({_fullLayout:e},t,r).type}(t,a),l=t[a+\\\"calendar\\\"],c=m[r],u=!0;c&&(s===c.axType&&l===c.calendar?(u=!1,c.traces.push(t),c.dirs.push(a)):(r=o,s!==c.axType&&n.warn([\\\"Attempted to group the bins of trace\\\",t.index,\\\"set on a\\\",\\\"type:\\\"+s,\\\"axis\\\",\\\"with bins on\\\",\\\"type:\\\"+c.axType,\\\"axis.\\\"].join(\\\" \\\")),l!==c.calendar&&n.warn([\\\"Attempted to group the bins of trace\\\",t.index,\\\"set with a\\\",l,\\\"calendar\\\",\\\"with bins\\\",c.calendar?\\\"on a \\\"+c.calendar+\\\" calendar\\\":\\\"w/o a set calendar\\\"].join(\\\" \\\")))),u&&(m[r]={traces:[t],dirs:[a],axType:s,calendar:t[a+\\\"calendar\\\"]||\\\"\\\"}),t[\\\"_\\\"+a+\\\"bingroup\\\"]=r}for(d=0;d<t.length;d++)r=t[d],a(r,\\\"histogram\\\")&&(y.push(r),delete r._xautoBinFinished,delete r._yautoBinFinished,a(r,\\\"2dMap\\\")||o(r._input,r,e,_));var T=e._alignmentOpts||{};for(d=0;d<y.length;d++){if(r=y[d],h=\\\"\\\",!a(r,\\\"2dMap\\\")){if(p=w(r),\\\"group\\\"===e.barmode&&r.alignmentgroup){var A=r[p+\\\"axis\\\"],M=l(e,A)+r.orientation;(T[M]||{})[r.alignmentgroup]&&(h=M)}h||\\\"overlay\\\"===e.barmode||(h=l(e,r.xaxis)+l(e,r.yaxis)+w(r))}h?(x[h]||(x[h]=[]),x[h].push(r)):b.push(r)}for(h in x)if(1!==(f=x[h]).length){var S=!1;for(d=0;d<f.length;d++){r=f[d],S=_(\\\"bingroup\\\");break}for(h=S||h,d=0;d<f.length;d++){var E=(r=f[d])._input.bingroup;E&&E!==h&&n.warn([\\\"Trace\\\",r.index,\\\"must match\\\",\\\"within bingroup\\\",h+\\\".\\\",\\\"Ignoring its bingroup:\\\",E,\\\"setting.\\\"].join(\\\" \\\")),r.bingroup=h,k(r,h,w(r))}}else b.push(f[0]);for(d=0;d<b.length;d++){r=b[d];var C=_(\\\"bingroup\\\");if(a(r,\\\"2dMap\\\"))for(v=0;v<2;v++){var L=_((p=u[v])+\\\"bingroup\\\",C?C+\\\"__\\\"+p:null);k(r,L,p)}else k(r,C,w(r))}for(h in m){var z=m[h];for(f=z.traces,g=0;g<c.length;g++){var O,I,D=c[g],P=D.name;if(\\\"nbins\\\"!==P||!z.sizeFound){for(d=0;d<f.length;d++){if(r=f[d],p=z.dirs[d],O=D.aStr[p],void 0!==s(r._input,O).get()){z[P]=_(O),z[P+\\\"Found\\\"]=!0;break}(I=(r._autoBin||{})[p]||{})[P]&&s(r,O).set(I[P])}if(\\\"start\\\"===P||\\\"end\\\"===P)for(;d<f.length;d++)(r=f[d])[\\\"_\\\"+p+\\\"bingroup\\\"]&&_(O,(I=(r._autoBin||{})[p]||{})[P]);\\\"nbins\\\"!==P||z.sizeFound||z.nbinsFound||(r=f[0],z[P]=_(O))}}}}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axis_ids\\\":754,\\\"../../registry\\\":831,\\\"../bar/defaults\\\":845}],998:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../components/color\\\"),o=t(\\\"../bar/style_defaults\\\"),s=t(\\\"./attributes\\\");e.exports=function(t,e,r,l){function c(r,n){return i.coerce(t,e,s,r,n)}var u=c(\\\"x\\\"),f=c(\\\"y\\\");c(\\\"cumulative.enabled\\\")&&(c(\\\"cumulative.direction\\\"),c(\\\"cumulative.currentbin\\\")),c(\\\"text\\\"),c(\\\"hovertext\\\"),c(\\\"hovertemplate\\\");var h=c(\\\"orientation\\\",f&&!u?\\\"h\\\":\\\"v\\\"),p=\\\"v\\\"===h?\\\"x\\\":\\\"y\\\",d=\\\"v\\\"===h?\\\"y\\\":\\\"x\\\",g=u&&f?Math.min(i.minRowLength(u)&&i.minRowLength(f)):i.minRowLength(e[p]||[]);if(g){e._length=g,n.getComponentMethod(\\\"calendars\\\",\\\"handleTraceDefaults\\\")(t,e,[\\\"x\\\",\\\"y\\\"],l),e[d]&&c(\\\"histfunc\\\"),c(\\\"histnorm\\\"),c(\\\"autobin\\\"+p),o(t,e,c,r,l),i.coerceSelectionMarkerOpacity(e,c);var v=(e.marker.line||{}).color,m=n.getComponentMethod(\\\"errorbars\\\",\\\"supplyDefaults\\\");m(t,e,v||a.defaultLine,{axis:\\\"y\\\"}),m(t,e,v||a.defaultLine,{axis:\\\"x\\\",inherit:\\\"y\\\"})}else e.visible=!1}},{\\\"../../components/color\\\":580,\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"../bar/style_defaults\\\":855,\\\"./attributes\\\":990}],999:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,n,i){if(t.x=\\\"xVal\\\"in e?e.xVal:e.x,t.y=\\\"yVal\\\"in e?e.yVal:e.y,\\\"zLabelVal\\\"in e&&(t.z=e.zLabelVal),e.xa&&(t.xaxis=e.xa),e.ya&&(t.yaxis=e.ya),!(r.cumulative||{}).enabled){var a,o=Array.isArray(i)?n[0].pts[i[0]][i[1]]:n[i].pts;if(t.pointNumbers=o,t.binNumber=t.pointNumber,delete t.pointNumber,delete t.pointIndex,r._indexToPoints){a=[];for(var s=0;s<o.length;s++)a=a.concat(r._indexToPoints[o[s]])}else a=o;t.pointIndices=a}return t}},{}],1000:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../bar/hover\\\").hoverPoints,i=t(\\\"../../plots/cartesian/axes\\\").hoverLabelText;e.exports=function(t,e,r,a){var o=n(t,e,r,a);if(o){var s=(t=o[0]).cd[t.index],l=t.cd[0].trace;if(!l.cumulative.enabled){var c=\\\"h\\\"===l.orientation?\\\"y\\\":\\\"x\\\";t[c+\\\"Label\\\"]=i(t[c+\\\"a\\\"],s.ph0,s.ph1)}return l.hovermplate&&(t.hovertemplate=l.hovertemplate),o}}},{\\\"../../plots/cartesian/axes\\\":751,\\\"../bar/hover\\\":847}],1001:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),layoutAttributes:t(\\\"../bar/layout_attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),crossTraceDefaults:t(\\\"./cross_trace_defaults\\\"),supplyLayoutDefaults:t(\\\"../bar/layout_defaults\\\"),calc:t(\\\"./calc\\\").calc,crossTraceCalc:t(\\\"../bar/cross_trace_calc\\\").crossTraceCalc,plot:t(\\\"../bar/plot\\\").plot,layerName:\\\"barlayer\\\",style:t(\\\"../bar/style\\\").style,styleOnSelect:t(\\\"../bar/style\\\").styleOnSelect,colorbar:t(\\\"../scatter/marker_colorbar\\\"),hoverPoints:t(\\\"./hover\\\"),selectPoints:t(\\\"../bar/select\\\"),eventData:t(\\\"./event_data\\\"),moduleType:\\\"trace\\\",name:\\\"histogram\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"bar-like\\\",\\\"cartesian\\\",\\\"svg\\\",\\\"bar\\\",\\\"histogram\\\",\\\"oriented\\\",\\\"errorBarsOK\\\",\\\"showLegend\\\"],meta:{}}},{\\\"../../plots/cartesian\\\":762,\\\"../bar/cross_trace_calc\\\":844,\\\"../bar/layout_attributes\\\":849,\\\"../bar/layout_defaults\\\":850,\\\"../bar/plot\\\":851,\\\"../bar/select\\\":852,\\\"../bar/style\\\":854,\\\"../scatter/marker_colorbar\\\":1092,\\\"./attributes\\\":990,\\\"./calc\\\":995,\\\"./cross_trace_defaults\\\":997,\\\"./defaults\\\":998,\\\"./event_data\\\":999,\\\"./hover\\\":1e3}],1002:[function(t,e,r){\\\"use strict\\\";e.exports={percent:function(t,e){for(var r=t.length,n=100/e,i=0;i<r;i++)t[i]*=n},probability:function(t,e){for(var r=t.length,n=0;n<r;n++)t[n]/=e},density:function(t,e,r,n){var i=t.length;n=n||1;for(var a=0;a<i;a++)t[a]*=r[a]*n},\\\"probability density\\\":function(t,e,r,n){var i=t.length;n&&(e/=n);for(var a=0;a<i;a++)t[a]*=r[a]/e}}},{}],1003:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../histogram/attributes\\\"),i=t(\\\"../histogram/bin_attributes\\\"),a=t(\\\"../heatmap/attributes\\\"),o=t(\\\"../../components/fx/hovertemplate_attributes\\\"),s=t(\\\"../../components/colorscale/attributes\\\"),l=t(\\\"../../lib/extend\\\").extendFlat;e.exports=l({x:n.x,y:n.y,z:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},marker:{color:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},editType:\\\"calc\\\"},histnorm:n.histnorm,histfunc:n.histfunc,nbinsx:n.nbinsx,xbins:i(\\\"x\\\"),nbinsy:n.nbinsy,ybins:i(\\\"y\\\"),autobinx:n.autobinx,autobiny:n.autobiny,bingroup:l({},n.bingroup,{}),xbingroup:l({},n.bingroup,{}),ybingroup:l({},n.bingroup,{}),xgap:a.xgap,ygap:a.ygap,zsmooth:a.zsmooth,zhoverformat:a.zhoverformat,hovertemplate:o({},{keys:\\\"z\\\"})},s(\\\"\\\",{cLetter:\\\"z\\\",autoColorDflt:!1}))},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../heatmap/attributes\\\":972,\\\"../histogram/attributes\\\":990,\\\"../histogram/bin_attributes\\\":992}],1004:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plots/cartesian/axes\\\"),a=t(\\\"../histogram/bin_functions\\\"),o=t(\\\"../histogram/norm_functions\\\"),s=t(\\\"../histogram/average\\\"),l=t(\\\"../histogram/bin_label_vals\\\"),c=t(\\\"../histogram/calc\\\").calcAllAutoBins;function u(t,e,r,n){var i,a=new Array(t);if(n)for(i=0;i<t;i++)a[i]=1/(e[i+1]-e[i]);else{var o=1/r;for(i=0;i<t;i++)a[i]=o}return a}function f(t,e){return{start:t(e.start),end:t(e.end),size:e.size}}function h(t,e,r,n,i,a){var o,s=t.length-1,c=new Array(s),u=l(r,n,t,i,a);for(o=0;o<s;o++){var f=(e||[])[o];c[o]=void 0===f?[u(t[o]),u(t[o+1],!0)]:[f,f]}return c}e.exports=function(t,e){var r,l,p,d,g=i.getFromId(t,e.xaxis),v=i.getFromId(t,e.yaxis),m=e.xcalendar,y=e.ycalendar,x=function(t){return g.r2c(t,0,m)},b=function(t){return v.r2c(t,0,y)},_=c(t,e,g,\\\"x\\\"),w=_[0],k=_[1],T=c(t,e,v,\\\"y\\\"),A=T[0],M=T[1],S=e._length;k.length>S&&k.splice(S,k.length-S),M.length>S&&M.splice(S,M.length-S);var E=[],C=[],L=[],z=\\\"string\\\"==typeof w.size,O=\\\"string\\\"==typeof A.size,I=[],D=[],P=z?I:w,R=O?D:A,F=0,B=[],N=[],j=e.histnorm,V=e.histfunc,U=-1!==j.indexOf(\\\"density\\\"),H=\\\"max\\\"===V||\\\"min\\\"===V?null:0,q=a.count,G=o[j],Y=!1,W=[],X=[],Z=\\\"z\\\"in e?e.z:\\\"marker\\\"in e&&Array.isArray(e.marker.color)?e.marker.color:\\\"\\\";Z&&\\\"count\\\"!==V&&(Y=\\\"avg\\\"===V,q=a[V]);var $=w.size,J=x(w.start),K=x(w.end)+(J-i.tickIncrement(J,$,!1,m))/1e6;for(r=J;r<K;r=i.tickIncrement(r,$,!1,m))C.push(H),I.push(r),Y&&L.push(0);I.push(r);var Q,tt=C.length,et=(r-J)/tt,rt=(Q=J+et/2,g.c2r(Q,0,m)),nt=A.size,it=b(A.start),at=b(A.end)+(it-i.tickIncrement(it,nt,!1,y))/1e6;for(r=it;r<at;r=i.tickIncrement(r,nt,!1,y)){E.push(C.slice()),D.push(r);var ot=new Array(tt);for(l=0;l<tt;l++)ot[l]=[];N.push(ot),Y&&B.push(L.slice())}D.push(r);var st=E.length,lt=(r-it)/st,ct=function(t){return v.c2r(t,0,y)}(it+lt/2);U&&(W=u(C.length,P,et,z),X=u(E.length,R,lt,O)),z||\\\"date\\\"!==g.type||(P=f(x,P)),O||\\\"date\\\"!==v.type||(R=f(b,R));var ut=!0,ft=!0,ht=new Array(tt),pt=new Array(st),dt=1/0,gt=1/0,vt=1/0,mt=1/0;for(r=0;r<S;r++){var yt=k[r],xt=M[r];p=n.findBin(yt,P),d=n.findBin(xt,R),p>=0&&p<tt&&d>=0&&d<st&&(F+=q(p,r,E[d],Z,B[d]),N[d][p].push(r),ut&&(void 0===ht[p]?ht[p]=yt:ht[p]!==yt&&(ut=!1)),ft&&(void 0===pt[d]?pt[d]=xt:pt[d]!==xt&&(ft=!1)),dt=Math.min(dt,yt-I[p]),gt=Math.min(gt,I[p+1]-yt),vt=Math.min(vt,xt-D[d]),mt=Math.min(mt,D[d+1]-xt))}if(Y)for(d=0;d<st;d++)F+=s(E[d],B[d]);if(G)for(d=0;d<st;d++)G(E[d],F,W,X[d]);return{x:k,xRanges:h(I,ut&&ht,dt,gt,g,m),x0:rt,dx:et,y:M,yRanges:h(D,ft&&pt,vt,mt,v,y),y0:ct,dy:lt,z:E,pts:N}}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"../histogram/average\\\":991,\\\"../histogram/bin_functions\\\":993,\\\"../histogram/bin_label_vals\\\":994,\\\"../histogram/calc\\\":995,\\\"../histogram/norm_functions\\\":1002}],1005:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./sample_defaults\\\"),a=t(\\\"../heatmap/style_defaults\\\"),o=t(\\\"../../components/colorscale/defaults\\\"),s=t(\\\"./attributes\\\");e.exports=function(t,e,r,l){function c(r,i){return n.coerce(t,e,s,r,i)}i(t,e,c,l),!1!==e.visible&&(a(t,e,c,l),o(t,e,l,c,{prefix:\\\"\\\",cLetter:\\\"z\\\"}),c(\\\"hovertemplate\\\"))}},{\\\"../../components/colorscale/defaults\\\":590,\\\"../../lib\\\":703,\\\"../heatmap/style_defaults\\\":985,\\\"./attributes\\\":1003,\\\"./sample_defaults\\\":1008}],1006:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../heatmap/hover\\\"),i=t(\\\"../../plots/cartesian/axes\\\").hoverLabelText;e.exports=function(t,e,r,a,o,s){var l=n(t,e,r,a,o,s);if(l){var c=(t=l[0]).index,u=c[0],f=c[1],h=t.cd[0],p=h.xRanges[f],d=h.yRanges[u];return t.xLabel=i(t.xa,p[0],p[1]),t.yLabel=i(t.ya,d[0],d[1]),l}}},{\\\"../../plots/cartesian/axes\\\":751,\\\"../heatmap/hover\\\":979}],1007:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),crossTraceDefaults:t(\\\"../histogram/cross_trace_defaults\\\"),calc:t(\\\"../heatmap/calc\\\"),plot:t(\\\"../heatmap/plot\\\"),layerName:\\\"heatmaplayer\\\",colorbar:t(\\\"../heatmap/colorbar\\\"),style:t(\\\"../heatmap/style\\\"),hoverPoints:t(\\\"./hover\\\"),eventData:t(\\\"../histogram/event_data\\\"),moduleType:\\\"trace\\\",name:\\\"histogram2d\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"cartesian\\\",\\\"svg\\\",\\\"2dMap\\\",\\\"histogram\\\"],meta:{}}},{\\\"../../plots/cartesian\\\":762,\\\"../heatmap/calc\\\":973,\\\"../heatmap/colorbar\\\":975,\\\"../heatmap/plot\\\":983,\\\"../heatmap/style\\\":984,\\\"../histogram/cross_trace_defaults\\\":997,\\\"../histogram/event_data\\\":999,\\\"./attributes\\\":1003,\\\"./defaults\\\":1005,\\\"./hover\\\":1006}],1008:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../lib\\\");e.exports=function(t,e,r,a){var o=r(\\\"x\\\"),s=r(\\\"y\\\"),l=i.minRowLength(o),c=i.minRowLength(s);l&&c?(e._length=Math.min(l,c),n.getComponentMethod(\\\"calendars\\\",\\\"handleTraceDefaults\\\")(t,e,[\\\"x\\\",\\\"y\\\"],a),(r(\\\"z\\\")||r(\\\"marker.color\\\"))&&r(\\\"histfunc\\\"),r(\\\"histnorm\\\"),r(\\\"autobinx\\\"),r(\\\"autobiny\\\")):e.visible=!1}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831}],1009:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../histogram2d/attributes\\\"),i=t(\\\"../contour/attributes\\\"),a=t(\\\"../../components/colorscale/attributes\\\"),o=t(\\\"../../lib/extend\\\").extendFlat;e.exports=o({x:n.x,y:n.y,z:n.z,marker:n.marker,histnorm:n.histnorm,histfunc:n.histfunc,nbinsx:n.nbinsx,xbins:n.xbins,nbinsy:n.nbinsy,ybins:n.ybins,autobinx:n.autobinx,autobiny:n.autobiny,bingroup:n.bingroup,xbingroup:n.xbingroup,ybingroup:n.ybingroup,autocontour:i.autocontour,ncontours:i.ncontours,contours:i.contours,line:i.line,zhoverformat:n.zhoverformat,hovertemplate:n.hovertemplate},a(\\\"\\\",{cLetter:\\\"z\\\",editTypeOverride:\\\"calc\\\"}))},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../lib/extend\\\":693,\\\"../contour/attributes\\\":921,\\\"../histogram2d/attributes\\\":1003}],1010:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../histogram2d/sample_defaults\\\"),a=t(\\\"../contour/contours_defaults\\\"),o=t(\\\"../contour/style_defaults\\\"),s=t(\\\"./attributes\\\");e.exports=function(t,e,r,l){function c(r,i){return n.coerce(t,e,s,r,i)}i(t,e,c,l),!1!==e.visible&&(a(t,e,c,function(r){return n.coerce2(t,e,s,r)}),o(t,e,c,l),c(\\\"hovertemplate\\\"))}},{\\\"../../lib\\\":703,\\\"../contour/contours_defaults\\\":928,\\\"../contour/style_defaults\\\":942,\\\"../histogram2d/sample_defaults\\\":1008,\\\"./attributes\\\":1009}],1011:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),crossTraceDefaults:t(\\\"../histogram/cross_trace_defaults\\\"),calc:t(\\\"../contour/calc\\\"),plot:t(\\\"../contour/plot\\\").plot,layerName:\\\"contourlayer\\\",style:t(\\\"../contour/style\\\"),colorbar:t(\\\"../contour/colorbar\\\"),hoverPoints:t(\\\"../contour/hover\\\"),moduleType:\\\"trace\\\",name:\\\"histogram2dcontour\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"cartesian\\\",\\\"svg\\\",\\\"2dMap\\\",\\\"contour\\\",\\\"histogram\\\",\\\"showLegend\\\"],meta:{}}},{\\\"../../plots/cartesian\\\":762,\\\"../contour/calc\\\":922,\\\"../contour/colorbar\\\":924,\\\"../contour/hover\\\":934,\\\"../contour/plot\\\":939,\\\"../contour/style\\\":941,\\\"../histogram/cross_trace_defaults\\\":997,\\\"./attributes\\\":1009,\\\"./defaults\\\":1010}],1012:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale/attributes\\\"),i=t(\\\"../../components/fx/hovertemplate_attributes\\\"),a=t(\\\"../mesh3d/attributes\\\"),o=t(\\\"../../plots/attributes\\\"),s=t(\\\"../../lib/extend\\\").extendFlat,l=t(\\\"../../plot_api/edit_types\\\").overrideAll;var c=e.exports=l(s({x:{valType:\\\"data_array\\\"},y:{valType:\\\"data_array\\\"},z:{valType:\\\"data_array\\\"},value:{valType:\\\"data_array\\\"},isomin:{valType:\\\"number\\\"},isomax:{valType:\\\"number\\\"},surface:{show:{valType:\\\"boolean\\\",dflt:!0},count:{valType:\\\"integer\\\",dflt:2,min:1},fill:{valType:\\\"number\\\",min:0,max:1,dflt:1},pattern:{valType:\\\"flaglist\\\",flags:[\\\"A\\\",\\\"B\\\",\\\"C\\\",\\\"D\\\",\\\"E\\\"],extras:[\\\"all\\\",\\\"odd\\\",\\\"even\\\"],dflt:\\\"all\\\"}},spaceframe:{show:{valType:\\\"boolean\\\",dflt:!1},fill:{valType:\\\"number\\\",min:0,max:1,dflt:.15}},slices:{x:{show:{valType:\\\"boolean\\\",dflt:!1},locations:{valType:\\\"data_array\\\",dflt:[]},fill:{valType:\\\"number\\\",min:0,max:1,dflt:1}},y:{show:{valType:\\\"boolean\\\",dflt:!1},locations:{valType:\\\"data_array\\\",dflt:[]},fill:{valType:\\\"number\\\",min:0,max:1,dflt:1}},z:{show:{valType:\\\"boolean\\\",dflt:!1},locations:{valType:\\\"data_array\\\",dflt:[]},fill:{valType:\\\"number\\\",min:0,max:1,dflt:1}}},caps:{x:{show:{valType:\\\"boolean\\\",dflt:!0},fill:{valType:\\\"number\\\",min:0,max:1,dflt:1}},y:{show:{valType:\\\"boolean\\\",dflt:!0},fill:{valType:\\\"number\\\",min:0,max:1,dflt:1}},z:{show:{valType:\\\"boolean\\\",dflt:!0},fill:{valType:\\\"number\\\",min:0,max:1,dflt:1}}},text:{valType:\\\"string\\\",dflt:\\\"\\\",arrayOk:!0},hovertext:{valType:\\\"string\\\",dflt:\\\"\\\",arrayOk:!0},hovertemplate:i()},n(\\\"\\\",{colorAttr:\\\"`value`\\\",showScaleDflt:!0,editTypeOverride:\\\"calc\\\"}),{opacity:a.opacity,lightposition:a.lightposition,lighting:a.lighting,flatshading:a.flatshading,contour:a.contour,hoverinfo:s({},o.hoverinfo)}),\\\"calc\\\",\\\"nested\\\");c.flatshading.dflt=!0,c.lighting.facenormalsepsilon.dflt=0,c.x.editType=c.y.editType=c.z.editType=c.value.editType=\\\"calc+clearAxisTypes\\\",c.transforms=void 0},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plot_api/edit_types\\\":734,\\\"../../plots/attributes\\\":748,\\\"../mesh3d/attributes\\\":1017}],1013:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale/calc\\\");e.exports=function(t,e){e._len=Math.min(e.x.length,e.y.length,e.z.length,e.value.length);for(var r=1/0,i=-1/0,a=e.value.length,o=0;o<a;o++){var s=e.value[o];r=Math.min(r,s),i=Math.max(i,s)}e._minValues=r,e._maxValues=i,e._vMin=void 0===e.isomin||null===e.isomin?r:e.isomin,e._vMax=void 0===e.isomax||null===e.isomin?i:e.isomax,n(t,e,{vals:[e._vMin,e._vMax],containerStr:\\\"\\\",cLetter:\\\"c\\\"})}},{\\\"../../components/colorscale/calc\\\":588}],1014:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-mesh3d\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../lib/gl_format_color\\\").parseColorScale,o=t(\\\"../../lib/str2rgbarray\\\"),s=t(\\\"../../components/colorscale\\\").extractOpts,l=t(\\\"../../plots/gl3d/zip3\\\");function c(t){return i.distinctVals(t).vals}var u=function(t,e){for(var r=e.length-1;r>0;r--){var n=Math.min(e[r],e[r-1]),i=Math.max(e[r],e[r-1]);if(i>n&&n<t&&t<=i)return{id:r,distRatio:(i-t)/(i-n)}}return{id:0,distRatio:0}};function f(t,e,r){this.scene=t,this.uid=r,this.mesh=e,this.name=\\\"\\\",this.data=null,this.showContour=!1}var h=f.prototype;function p(t){t._i=[],t._j=[],t._k=[];var e,r,n=t.surface.show,i=t.spaceframe.show,a=t.surface.fill,o=t.spaceframe.fill,s=!1,l=!1,f=0,h=c(t.x.slice(0,t._len)),p=c(t.y.slice(0,t._len)),d=c(t.z.slice(0,t._len)),g=h.length,v=p.length,m=d.length;function y(t,e,r){return r+m*e+m*v*t}var x,b,_,w,k,T=t._minValues,A=t._maxValues,M=t._vMin,S=t._vMax;function E(t,e,n){for(var i=w.length,a=r;a<i;a++)if(t===x[a]&&e===b[a]&&n===_[a])return a;return-1}function C(){r=e}function L(){x=[],b=[],_=[],w=[],e=0,C()}function z(t,r,n,i){return x.push(t),b.push(r),_.push(n),w.push(i),++e-1}function O(t,e,r){for(var n=[],i=0;i<t.length;i++)n[i]=t[i]*(1-r)+r*e[i];return n}function I(t){k=t}function D(t,e){return\\\"all\\\"===t||null===t||t.indexOf(e)>-1}function P(t,e){return null===t?e:t}function R(e,r,n){C();var i,a,o,s=[r],l=[n];if(k>=1)s=[r],l=[n];else if(k>0){var c=function(t,e){var r=t[0],n=t[1],i=t[2],a=function(t,e,r){for(var n=[],i=0;i<t.length;i++)n[i]=(t[i]+e[i]+r[i])/3;return n}(r,n,i),o=Math.sqrt(1-k),s=O(a,r,o),l=O(a,n,o),c=O(a,i,o),u=e[0],f=e[1],h=e[2];return{xyzv:[[r,n,l],[l,s,r],[n,i,c],[c,l,n],[i,r,s],[s,c,i]],abc:[[u,f,-1],[-1,-1,u],[f,h,-1],[-1,-1,f],[h,u,-1],[-1,-1,h]]}}(r,n);s=c.xyzv,l=c.abc}for(var u=0;u<s.length;u++){r=s[u],n=l[u];for(var h=[],p=0;p<3;p++){var d=r[p][0],g=r[p][1],v=r[p][2],m=r[p][3],y=n[p]>-1?n[p]:E(d,g,v);h[p]=y>-1?y:z(d,g,v,P(e,m))}i=h[0],a=h[1],o=h[2],t._i.push(i),t._j.push(a),t._k.push(o),++f}}function F(t,e,r,n){var i=t[3];i<r&&(i=r),i>n&&(i=n);for(var a=(t[3]-i)/(t[3]-e[3]+1e-9),o=[],s=0;s<4;s++)o[s]=(1-a)*t[s]+a*e[s];return o}function B(t,e,r){return t>=e&&t<=r}function N(t){var e=.001*(S-M);return t>=M-e&&t<=S+e}function j(e){for(var r=[],n=0;n<4;n++){var i=e[n];r.push([t.x[i],t.y[i],t.z[i],t.value[i]])}return r}var V=3;function U(t,e,r,n,i,a){a||(a=1),r=[-1,-1,-1];var o=!1,s=[B(e[0][3],n,i),B(e[1][3],n,i),B(e[2][3],n,i)];if(!s[0]&&!s[1]&&!s[2])return!1;var l=function(t,e,r){return N(e[0][3])&&N(e[1][3])&&N(e[2][3])?(R(t,e,r),!0):a<V&&U(t,e,r,M,S,++a)};if(s[0]&&s[1]&&s[2])return l(t,e,r)||o;var c=!1;return[[0,1,2],[2,0,1],[1,2,0]].forEach(function(a){if(s[a[0]]&&s[a[1]]&&!s[a[2]]){var u=e[a[0]],f=e[a[1]],h=e[a[2]],p=F(h,u,n,i),d=F(h,f,n,i);o=l(t,[d,p,u],[-1,-1,r[a[0]]])||o,o=l(t,[u,f,d],[r[a[0]],r[a[1]],-1])||o,c=!0}}),c?o:([[0,1,2],[1,2,0],[2,0,1]].forEach(function(a){if(s[a[0]]&&!s[a[1]]&&!s[a[2]]){var u=e[a[0]],f=e[a[1]],h=e[a[2]],p=F(f,u,n,i),d=F(h,u,n,i);o=l(t,[d,p,u],[-1,-1,r[a[0]]])||o,c=!0}}),o)}function H(t,e,r,n){var i=!1,a=j(e),o=[B(a[0][3],r,n),B(a[1][3],r,n),B(a[2][3],r,n),B(a[3][3],r,n)];if(!(o[0]||o[1]||o[2]||o[3]))return i;if(o[0]&&o[1]&&o[2]&&o[3])return l&&(i=function(t,e,r){var n=function(n,i,a){R(t,[e[n],e[i],e[a]],[r[n],r[i],r[a]])};n(0,1,2),n(3,0,1),n(2,3,0),n(1,2,3)}(t,a,e)||i),i;var s=!1;return[[0,1,2,3],[3,0,1,2],[2,3,0,1],[1,2,3,0]].forEach(function(c){if(o[c[0]]&&o[c[1]]&&o[c[2]]&&!o[c[3]]){var u=a[c[0]],f=a[c[1]],h=a[c[2]],p=a[c[3]];if(l)i=R(t,[u,f,h],[e[c[0]],e[c[1]],e[c[2]]])||i;else{var d=F(p,u,r,n),g=F(p,f,r,n),v=F(p,h,r,n);i=R(null,[d,g,v],[-1,-1,-1])||i}s=!0}}),s?i:([[0,1,2,3],[1,2,3,0],[2,3,0,1],[3,0,1,2],[0,2,3,1],[1,3,2,0]].forEach(function(c){if(o[c[0]]&&o[c[1]]&&!o[c[2]]&&!o[c[3]]){var u=a[c[0]],f=a[c[1]],h=a[c[2]],p=a[c[3]],d=F(h,u,r,n),g=F(h,f,r,n),v=F(p,f,r,n),m=F(p,u,r,n);l?(i=R(t,[u,m,d],[e[c[0]],-1,-1])||i,i=R(t,[f,g,v],[e[c[1]],-1,-1])||i):i=function(t,e,r){var n=function(n,i,a){R(t,[e[n],e[i],e[a]],[r[n],r[i],r[a]])};n(0,1,2),n(2,3,0)}(null,[d,g,v,m],[-1,-1,-1,-1])||i,s=!0}}),s?i:([[0,1,2,3],[1,2,3,0],[2,3,0,1],[3,0,1,2]].forEach(function(c){if(o[c[0]]&&!o[c[1]]&&!o[c[2]]&&!o[c[3]]){var u=a[c[0]],f=a[c[1]],h=a[c[2]],p=a[c[3]],d=F(f,u,r,n),g=F(h,u,r,n),v=F(p,u,r,n);l?(i=R(t,[u,d,g],[e[c[0]],-1,-1])||i,i=R(t,[u,g,v],[e[c[0]],-1,-1])||i,i=R(t,[u,v,d],[e[c[0]],-1,-1])||i):i=R(null,[d,g,v],[-1,-1,-1])||i,s=!0}}),i))}function q(t,e,r,n,i,a,o,c,u,f,h){var p=!1;return s&&(D(t,\\\"A\\\")&&(p=H(null,[e,r,n,a],f,h)||p),D(t,\\\"B\\\")&&(p=H(null,[r,n,i,u],f,h)||p),D(t,\\\"C\\\")&&(p=H(null,[r,a,o,u],f,h)||p),D(t,\\\"D\\\")&&(p=H(null,[n,a,c,u],f,h)||p),D(t,\\\"E\\\")&&(p=H(null,[r,n,a,u],f,h)||p)),l&&(p=H(t,[r,n,a,u],f,h)||p),p}function G(t,e,r,n,i,a,o,s){return[!0===s[0]||U(t,j([e,r,n]),[e,r,n],a,o),!0===s[1]||U(t,j([n,i,e]),[n,i,e],a,o)]}function Y(t,e,r,n,i,a,o,s,l){return s?G(t,e,r,i,n,a,o,l):G(t,r,i,n,e,a,o,l)}function W(t,e,r,n,i,a,o){var s,l,c,u,f=!1,h=function(){f=U(t,[s,l,c],[-1,-1,-1],i,a)||f,f=U(t,[c,u,s],[-1,-1,-1],i,a)||f},p=o[0],d=o[1],g=o[2];return p&&(s=O(j([y(e,r-0,n-0)])[0],j([y(e-1,r-0,n-0)])[0],p),l=O(j([y(e,r-0,n-1)])[0],j([y(e-1,r-0,n-1)])[0],p),c=O(j([y(e,r-1,n-1)])[0],j([y(e-1,r-1,n-1)])[0],p),u=O(j([y(e,r-1,n-0)])[0],j([y(e-1,r-1,n-0)])[0],p),h()),d&&(s=O(j([y(e-0,r,n-0)])[0],j([y(e-0,r-1,n-0)])[0],d),l=O(j([y(e-0,r,n-1)])[0],j([y(e-0,r-1,n-1)])[0],d),c=O(j([y(e-1,r,n-1)])[0],j([y(e-1,r-1,n-1)])[0],d),u=O(j([y(e-1,r,n-0)])[0],j([y(e-1,r-1,n-0)])[0],d),h()),g&&(s=O(j([y(e-0,r-0,n)])[0],j([y(e-0,r-0,n-1)])[0],g),l=O(j([y(e-0,r-1,n)])[0],j([y(e-0,r-1,n-1)])[0],g),c=O(j([y(e-1,r-1,n)])[0],j([y(e-1,r-1,n-1)])[0],g),u=O(j([y(e-1,r-0,n)])[0],j([y(e-1,r-0,n-1)])[0],g),h()),f}function X(t,e,r,n,i,a,o,l,c,u,f,h){var p=t;return h?(s&&\\\"even\\\"===t&&(p=null),q(p,e,r,n,i,a,o,l,c,u,f)):(s&&\\\"odd\\\"===t&&(p=null),q(p,c,l,o,a,i,n,r,e,u,f))}function Z(t,e,r,n,i){for(var a=[],o=0,s=0;s<e.length;s++)for(var l=e[s],c=1;c<m;c++)for(var u=1;u<v;u++)a.push(Y(t,y(l,u-1,c-1),y(l,u-1,c),y(l,u,c-1),y(l,u,c),r,n,(l+u+c)%2,i&&i[o]?i[o]:[])),o++;return a}function $(t,e,r,n,i){for(var a=[],o=0,s=0;s<e.length;s++)for(var l=e[s],c=1;c<g;c++)for(var u=1;u<m;u++)a.push(Y(t,y(c-1,l,u-1),y(c,l,u-1),y(c-1,l,u),y(c,l,u),r,n,(c+l+u)%2,i&&i[o]?i[o]:[])),o++;return a}function J(t,e,r,n,i){for(var a=[],o=0,s=0;s<e.length;s++)for(var l=e[s],c=1;c<v;c++)for(var u=1;u<g;u++)a.push(Y(t,y(u-1,c-1,l),y(u-1,c,l),y(u,c-1,l),y(u,c,l),r,n,(u+c+l)%2,i&&i[o]?i[o]:[])),o++;return a}function K(t,e,r){for(var n=1;n<m;n++)for(var i=1;i<v;i++)for(var a=1;a<g;a++)X(t,y(a-1,i-1,n-1),y(a-1,i-1,n),y(a-1,i,n-1),y(a-1,i,n),y(a,i-1,n-1),y(a,i-1,n),y(a,i,n-1),y(a,i,n),e,r,(a+i+n)%2)}function Q(t,e,r){s=!0,K(t,e,r),s=!1}function tt(t,e,r,n,i,a){for(var o=[],s=0,l=0;l<e.length;l++)for(var c=e[l],u=1;u<m;u++)for(var f=1;f<v;f++)o.push(W(t,c,f,u,r,n,i[l],a&&a[s]&&a[s])),s++;return o}function et(t,e,r,n,i,a){for(var o=[],s=0,l=0;l<e.length;l++)for(var c=e[l],u=1;u<g;u++)for(var f=1;f<m;f++)o.push(W(t,u,c,f,r,n,i[l],a&&a[s]&&a[s])),s++;return o}function rt(t,e,r,n,i,a){for(var o=[],s=0,l=0;l<e.length;l++)for(var c=e[l],u=1;u<v;u++)for(var f=1;f<g;f++)o.push(W(t,f,u,c,r,n,i[l],a&&a[s]&&a[s])),s++;return o}function nt(t,e){for(var r=[],n=t;n<e;n++)r.push(n);return r}return function(){if(L(),function(){for(var e=0;e<g;e++)for(var r=0;r<v;r++)for(var n=0;n<m;n++){var i=y(e,r,n);z(t.x[i],t.y[i],t.z[i],t.value[i])}}(),i&&o&&(I(o),l=!0,K(null,M,S),l=!1),n&&a){I(a);for(var e=t.surface.pattern,r=t.surface.count,s=0;s<r;s++){var c=1===r?.5:s/(r-1),k=(1-c)*M+c*S,E=Math.abs(k-T)>Math.abs(k-A)?[T,k]:[k,A];Q(e,E[0],E[1])}}var C=[[Math.min(M,A),Math.max(M,A)],[Math.min(T,S),Math.max(T,S)]];[\\\"x\\\",\\\"y\\\",\\\"z\\\"].forEach(function(e){for(var r=[],n=0;n<C.length;n++){var i=0,a=C[n][0],o=C[n][1],s=t.slices[e];if(s.show&&s.fill){I(s.fill);var l=[],c=[],f=[];if(s.locations.length)for(var y=0;y<s.locations.length;y++){var x=u(s.locations[y],\\\"x\\\"===e?h:\\\"y\\\"===e?p:d);0===x.distRatio?l.push(x.id):x.id>0&&(c.push(x.id),\\\"x\\\"===e?f.push([x.distRatio,0,0]):\\\"y\\\"===e?f.push([0,x.distRatio,0]):f.push([0,0,x.distRatio]))}else l=nt(1,\\\"x\\\"===e?g-1:\\\"y\\\"===e?v-1:m-1);c.length>0&&(r[i]=\\\"x\\\"===e?tt(null,c,a,o,f,r[i]):\\\"y\\\"===e?et(null,c,a,o,f,r[i]):rt(null,c,a,o,f,r[i]),i++),l.length>0&&(r[i]=\\\"x\\\"===e?Z(null,l,a,o,r[i]):\\\"y\\\"===e?$(null,l,a,o,r[i]):J(null,l,a,o,r[i]),i++)}var b=t.caps[e];b.show&&b.fill&&(I(b.fill),r[i]=\\\"x\\\"===e?Z(null,[0,g-1],a,o,r[i]):\\\"y\\\"===e?$(null,[0,v-1],a,o,r[i]):J(null,[0,m-1],a,o,r[i]),i++)}}),0===f&&L(),t._x=x,t._y=b,t._z=_,t._intensity=w,t._Xs=h,t._Ys=p,t._Zs=d}(),t}h.handlePick=function(t){if(t.object===this.mesh){var e=t.data.index,r=this.data._x[e],n=this.data._y[e],i=this.data._z[e],a=this.data._Ys.length,o=this.data._Zs.length,s=u(r,this.data._Xs).id,l=u(n,this.data._Ys).id,c=u(i,this.data._Zs).id,f=t.index=c+o*l+o*a*s;t.traceCoordinate=[this.data._x[f],this.data._y[f],this.data._z[f],this.data.value[f]];var h=this.data.hovertext||this.data.text;return Array.isArray(h)&&void 0!==h[f]?t.textLabel=h[f]:h&&(t.textLabel=h),!0}},h.update=function(t){var e=this.scene,r=e.fullSceneLayout;function n(t,e,r,n){return e.map(function(e){return t.d2l(e,0,n)*r})}this.data=p(t);var i={positions:l(n(r.xaxis,t._x,e.dataScale[0],t.xcalendar),n(r.yaxis,t._y,e.dataScale[1],t.ycalendar),n(r.zaxis,t._z,e.dataScale[2],t.zcalendar)),cells:l(t._i,t._j,t._k),lightPosition:[t.lightposition.x,t.lightposition.y,t.lightposition.z],ambient:t.lighting.ambient,diffuse:t.lighting.diffuse,specular:t.lighting.specular,roughness:t.lighting.roughness,fresnel:t.lighting.fresnel,vertexNormalsEpsilon:t.lighting.vertexnormalsepsilon,faceNormalsEpsilon:t.lighting.facenormalsepsilon,opacity:t.opacity,contourEnable:t.contour.show,contourColor:o(t.contour.color).slice(0,3),contourWidth:t.contour.width,useFacetNormals:t.flatshading},c=s(t);i.vertexIntensity=t._intensity,i.vertexIntensityBounds=[c.min,c.max],i.colormap=a(t),this.mesh.update(i)},h.dispose=function(){this.scene.glplot.remove(this.mesh),this.mesh.dispose()},e.exports={findNearestOnAxis:u,generateIsoMeshes:p,createIsosurfaceTrace:function(t,e){var r=t.glplot.gl,i=n({gl:r}),a=new f(t,i,e.uid);return i._trace=a,a.update(e),t.glplot.add(i),a}}},{\\\"../../components/colorscale\\\":592,\\\"../../lib\\\":703,\\\"../../lib/gl_format_color\\\":700,\\\"../../lib/str2rgbarray\\\":726,\\\"../../plots/gl3d/zip3\\\":802,\\\"gl-mesh3d\\\":279}],1015:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"./attributes\\\"),o=t(\\\"../../components/colorscale/defaults\\\");function s(t,e,r,n,a){var s=a(\\\"isomin\\\"),l=a(\\\"isomax\\\");null!=l&&null!=s&&s>l&&(e.isomin=null,e.isomax=null);var c=a(\\\"x\\\"),u=a(\\\"y\\\"),f=a(\\\"z\\\"),h=a(\\\"value\\\");c&&c.length&&u&&u.length&&f&&f.length&&h&&h.length?(i.getComponentMethod(\\\"calendars\\\",\\\"handleTraceDefaults\\\")(t,e,[\\\"x\\\",\\\"y\\\",\\\"z\\\"],n),[\\\"x\\\",\\\"y\\\",\\\"z\\\"].forEach(function(t){var e=\\\"caps.\\\"+t;a(e+\\\".show\\\")&&a(e+\\\".fill\\\");var r=\\\"slices.\\\"+t;a(r+\\\".show\\\")&&(a(r+\\\".fill\\\"),a(r+\\\".locations\\\"))}),a(\\\"spaceframe.show\\\")&&a(\\\"spaceframe.fill\\\"),a(\\\"surface.show\\\")&&(a(\\\"surface.count\\\"),a(\\\"surface.fill\\\"),a(\\\"surface.pattern\\\")),a(\\\"contour.show\\\")&&(a(\\\"contour.color\\\"),a(\\\"contour.width\\\")),[\\\"text\\\",\\\"hovertext\\\",\\\"hovertemplate\\\",\\\"lighting.ambient\\\",\\\"lighting.diffuse\\\",\\\"lighting.specular\\\",\\\"lighting.roughness\\\",\\\"lighting.fresnel\\\",\\\"lighting.vertexnormalsepsilon\\\",\\\"lighting.facenormalsepsilon\\\",\\\"lightposition.x\\\",\\\"lightposition.y\\\",\\\"lightposition.z\\\",\\\"flatshading\\\",\\\"opacity\\\"].forEach(function(t){a(t)}),o(t,e,n,a,{prefix:\\\"\\\",cLetter:\\\"c\\\"}),e._length=null):e.visible=!1}e.exports={supplyDefaults:function(t,e,r,i){s(t,e,0,i,function(r,i){return n.coerce(t,e,a,r,i)})},supplyIsoDefaults:s}},{\\\"../../components/colorscale/defaults\\\":590,\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"./attributes\\\":1012}],1016:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\").supplyDefaults,calc:t(\\\"./calc\\\"),colorbar:{min:\\\"cmin\\\",max:\\\"cmax\\\"},plot:t(\\\"./convert\\\").createIsosurfaceTrace,moduleType:\\\"trace\\\",name:\\\"isosurface\\\",basePlotModule:t(\\\"../../plots/gl3d\\\"),categories:[\\\"gl3d\\\"],meta:{}}},{\\\"../../plots/gl3d\\\":791,\\\"./attributes\\\":1012,\\\"./calc\\\":1013,\\\"./convert\\\":1014,\\\"./defaults\\\":1015}],1017:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale/attributes\\\"),i=t(\\\"../../components/fx/hovertemplate_attributes\\\"),a=t(\\\"../surface/attributes\\\"),o=t(\\\"../../plots/attributes\\\"),s=t(\\\"../../lib/extend\\\").extendFlat;e.exports=s({x:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},y:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},z:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},i:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},j:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},k:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},text:{valType:\\\"string\\\",dflt:\\\"\\\",arrayOk:!0,editType:\\\"calc\\\"},hovertext:{valType:\\\"string\\\",dflt:\\\"\\\",arrayOk:!0,editType:\\\"calc\\\"},hovertemplate:i({editType:\\\"calc\\\"}),delaunayaxis:{valType:\\\"enumerated\\\",values:[\\\"x\\\",\\\"y\\\",\\\"z\\\"],dflt:\\\"z\\\",editType:\\\"calc\\\"},alphahull:{valType:\\\"number\\\",dflt:-1,editType:\\\"calc\\\"},intensity:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},color:{valType:\\\"color\\\",editType:\\\"calc\\\"},vertexcolor:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},facecolor:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},transforms:void 0},n(\\\"\\\",{colorAttr:\\\"`intensity`\\\",showScaleDflt:!0,editTypeOverride:\\\"calc\\\"}),{opacity:a.opacity,flatshading:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"calc\\\"},contour:{show:s({},a.contours.x.show,{}),color:a.contours.x.color,width:a.contours.x.width,editType:\\\"calc\\\"},lightposition:{x:s({},a.lightposition.x,{dflt:1e5}),y:s({},a.lightposition.y,{dflt:1e5}),z:s({},a.lightposition.z,{dflt:0}),editType:\\\"calc\\\"},lighting:s({vertexnormalsepsilon:{valType:\\\"number\\\",min:0,max:1,dflt:1e-12,editType:\\\"calc\\\"},facenormalsepsilon:{valType:\\\"number\\\",min:0,max:1,dflt:1e-6,editType:\\\"calc\\\"},editType:\\\"calc\\\"},a.lighting),hoverinfo:s({},o.hoverinfo,{editType:\\\"calc\\\"})})},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plots/attributes\\\":748,\\\"../surface/attributes\\\":1171}],1018:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale/calc\\\");e.exports=function(t,e){e.intensity&&n(t,e,{vals:e.intensity,containerStr:\\\"\\\",cLetter:\\\"c\\\"})}},{\\\"../../components/colorscale/calc\\\":588}],1019:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-mesh3d\\\"),i=t(\\\"delaunay-triangulate\\\"),a=t(\\\"alpha-shape\\\"),o=t(\\\"convex-hull\\\"),s=t(\\\"../../lib/gl_format_color\\\").parseColorScale,l=t(\\\"../../lib/str2rgbarray\\\"),c=t(\\\"../../components/colorscale\\\").extractOpts,u=t(\\\"../../plots/gl3d/zip3\\\");function f(t,e,r){this.scene=t,this.uid=r,this.mesh=e,this.name=\\\"\\\",this.color=\\\"#fff\\\",this.data=null,this.showContour=!1}var h=f.prototype;function p(t){for(var e=[],r=t.length,n=0;n<r;n++)e[n]=l(t[n]);return e}function d(t,e,r,n){for(var i=[],a=e.length,o=0;o<a;o++)i[o]=t.d2l(e[o],0,n)*r;return i}function g(t){for(var e=[],r=t.length,n=0;n<r;n++)e[n]=Math.round(t[n]);return e}function v(t,e){for(var r=t.length,n=0;n<r;n++)if(t[n]<=-.5||t[n]>=e-.5)return!1;return!0}h.handlePick=function(t){if(t.object===this.mesh){var e=t.index=t.data.index;t.traceCoordinate=[this.data.x[e],this.data.y[e],this.data.z[e]];var r=this.data.hovertext||this.data.text;return Array.isArray(r)&&void 0!==r[e]?t.textLabel=r[e]:r&&(t.textLabel=r),!0}},h.update=function(t){var e=this.scene,r=e.fullSceneLayout;this.data=t;var n,f=t.x.length,h=u(d(r.xaxis,t.x,e.dataScale[0],t.xcalendar),d(r.yaxis,t.y,e.dataScale[1],t.ycalendar),d(r.zaxis,t.z,e.dataScale[2],t.zcalendar));if(t.i&&t.j&&t.k){if(t.i.length!==t.j.length||t.j.length!==t.k.length||!v(t.i,f)||!v(t.j,f)||!v(t.k,f))return;n=u(g(t.i),g(t.j),g(t.k))}else n=0===t.alphahull?o(h):t.alphahull>0?a(t.alphahull,h):function(t,e){for(var r=[\\\"x\\\",\\\"y\\\",\\\"z\\\"].indexOf(t),n=[],a=e.length,o=0;o<a;o++)n[o]=[e[o][(r+1)%3],e[o][(r+2)%3]];return i(n)}(t.delaunayaxis,h);var m={positions:h,cells:n,lightPosition:[t.lightposition.x,t.lightposition.y,t.lightposition.z],ambient:t.lighting.ambient,diffuse:t.lighting.diffuse,specular:t.lighting.specular,roughness:t.lighting.roughness,fresnel:t.lighting.fresnel,vertexNormalsEpsilon:t.lighting.vertexnormalsepsilon,faceNormalsEpsilon:t.lighting.facenormalsepsilon,opacity:t.opacity,contourEnable:t.contour.show,contourColor:l(t.contour.color).slice(0,3),contourWidth:t.contour.width,useFacetNormals:t.flatshading};if(t.intensity){var y=c(t);this.color=\\\"#fff\\\",m.vertexIntensity=t.intensity,m.vertexIntensityBounds=[y.min,y.max],m.colormap=s(t)}else t.vertexcolor?(this.color=t.vertexcolor[0],m.vertexColors=p(t.vertexcolor)):t.facecolor?(this.color=t.facecolor[0],m.cellColors=p(t.facecolor)):(this.color=t.color,m.meshColor=l(t.color));this.mesh.update(m)},h.dispose=function(){this.scene.glplot.remove(this.mesh),this.mesh.dispose()},e.exports=function(t,e){var r=t.glplot.gl,i=n({gl:r}),a=new f(t,i,e.uid);return i._trace=a,a.update(e),t.glplot.add(i),a}},{\\\"../../components/colorscale\\\":592,\\\"../../lib/gl_format_color\\\":700,\\\"../../lib/str2rgbarray\\\":726,\\\"../../plots/gl3d/zip3\\\":802,\\\"alpha-shape\\\":57,\\\"convex-hull\\\":123,\\\"delaunay-triangulate\\\":159,\\\"gl-mesh3d\\\":279}],1020:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../components/colorscale/defaults\\\"),o=t(\\\"./attributes\\\");e.exports=function(t,e,r,s){function l(r,n){return i.coerce(t,e,o,r,n)}function c(t){var e=t.map(function(t){var e=l(t);return e&&i.isArrayOrTypedArray(e)?e:null});return e.every(function(t){return t&&t.length===e[0].length})&&e}c([\\\"x\\\",\\\"y\\\",\\\"z\\\"])?(c([\\\"i\\\",\\\"j\\\",\\\"k\\\"]),(!e.i||e.j&&e.k)&&(!e.j||e.k&&e.i)&&(!e.k||e.i&&e.j)?(n.getComponentMethod(\\\"calendars\\\",\\\"handleTraceDefaults\\\")(t,e,[\\\"x\\\",\\\"y\\\",\\\"z\\\"],s),[\\\"lighting.ambient\\\",\\\"lighting.diffuse\\\",\\\"lighting.specular\\\",\\\"lighting.roughness\\\",\\\"lighting.fresnel\\\",\\\"lighting.vertexnormalsepsilon\\\",\\\"lighting.facenormalsepsilon\\\",\\\"lightposition.x\\\",\\\"lightposition.y\\\",\\\"lightposition.z\\\",\\\"contour.show\\\",\\\"contour.color\\\",\\\"contour.width\\\",\\\"colorscale\\\",\\\"reversescale\\\",\\\"flatshading\\\",\\\"alphahull\\\",\\\"delaunayaxis\\\",\\\"opacity\\\"].forEach(function(t){l(t)}),\\\"intensity\\\"in t?(l(\\\"intensity\\\"),a(t,e,s,l,{prefix:\\\"\\\",cLetter:\\\"c\\\"})):(e.showscale=!1,\\\"facecolor\\\"in t?l(\\\"facecolor\\\"):\\\"vertexcolor\\\"in t?l(\\\"vertexcolor\\\"):l(\\\"color\\\",r)),l(\\\"text\\\"),l(\\\"hovertext\\\"),l(\\\"hovertemplate\\\"),e._length=null):e.visible=!1):e.visible=!1}},{\\\"../../components/colorscale/defaults\\\":590,\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"./attributes\\\":1017}],1021:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),calc:t(\\\"./calc\\\"),colorbar:{min:\\\"cmin\\\",max:\\\"cmax\\\"},plot:t(\\\"./convert\\\"),moduleType:\\\"trace\\\",name:\\\"mesh3d\\\",basePlotModule:t(\\\"../../plots/gl3d\\\"),categories:[\\\"gl3d\\\"],meta:{}}},{\\\"../../plots/gl3d\\\":791,\\\"./attributes\\\":1017,\\\"./calc\\\":1018,\\\"./convert\\\":1019,\\\"./defaults\\\":1020}],1022:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\").extendFlat,i=t(\\\"../scatter/attributes\\\"),a=t(\\\"../../components/drawing/attributes\\\").dash,o=t(\\\"../../components/fx/attributes\\\"),s=i.line;function l(t){return{line:{color:n({},s.color,{dflt:t}),width:s.width,dash:a,editType:\\\"style\\\"},editType:\\\"style\\\"}}e.exports={x:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},open:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},high:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},low:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},close:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},line:{width:n({},s.width,{}),dash:n({},a,{}),editType:\\\"style\\\"},increasing:l(\\\"#3D9970\\\"),decreasing:l(\\\"#FF4136\\\"),text:{valType:\\\"string\\\",dflt:\\\"\\\",arrayOk:!0,editType:\\\"calc\\\"},hovertext:{valType:\\\"string\\\",dflt:\\\"\\\",arrayOk:!0,editType:\\\"calc\\\"},tickwidth:{valType:\\\"number\\\",min:0,max:.5,dflt:.3,editType:\\\"calc\\\"},hoverlabel:n({},o.hoverlabel,{split:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"style\\\"}})}},{\\\"../../components/drawing/attributes\\\":600,\\\"../../components/fx/attributes\\\":610,\\\"../../lib\\\":703,\\\"../scatter/attributes\\\":1075}],1023:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=n._,a=t(\\\"../../plots/cartesian/axes\\\"),o=t(\\\"../../constants/numerical\\\").BADNUM;function s(t,e,r,n){return{o:t,h:e,l:r,c:n}}function l(t,e,r,s,l){for(var c=s.makeCalcdata(e,\\\"open\\\"),u=s.makeCalcdata(e,\\\"high\\\"),f=s.makeCalcdata(e,\\\"low\\\"),h=s.makeCalcdata(e,\\\"close\\\"),p=Array.isArray(e.text),d=Array.isArray(e.hovertext),g=!0,v=null,m=[],y=0;y<r.length;y++){var x=r[y],b=c[y],_=u[y],w=f[y],k=h[y];if(x!==o&&b!==o&&_!==o&&w!==o&&k!==o){k===b?null!==v&&k!==v&&(g=k>v):g=k>b,v=k;var T=l(b,_,w,k);T.pos=x,T.yc=(b+k)/2,T.i=y,T.dir=g?\\\"increasing\\\":\\\"decreasing\\\",T.x=T.pos,T.y=[w,_],p&&(T.tx=e.text[y]),d&&(T.htx=e.hovertext[y]),m.push(T)}else m.push({pos:x,empty:!0})}return e._extremes[s._id]=a.findExtremes(s,n.concat(f,u),{padded:!0}),m.length&&(m[0].t={labels:{open:i(t,\\\"open:\\\")+\\\" \\\",high:i(t,\\\"high:\\\")+\\\" \\\",low:i(t,\\\"low:\\\")+\\\" \\\",close:i(t,\\\"close:\\\")+\\\" \\\"}}),m}e.exports={calc:function(t,e){var r=a.getFromId(t,e.xaxis),i=a.getFromId(t,e.yaxis),o=function(t,e,r){var i=r._minDiff;if(!i){var a,o=t._fullData,s=[];for(i=1/0,a=0;a<o.length;a++){var l=o[a];if(\\\"ohlc\\\"===l.type&&!0===l.visible&&l.xaxis===e._id){s.push(l);var c=e.makeCalcdata(l,\\\"x\\\");l._xcalc=c;var u=n.distinctVals(c).minDiff;u&&isFinite(u)&&(i=Math.min(i,u))}}for(i===1/0&&(i=1),a=0;a<s.length;a++)s[a]._minDiff=i}return i*r.tickwidth}(t,r,e),c=e._minDiff;e._minDiff=null;var u=e._xcalc;e._xcalc=null;var f=l(t,e,u,i,s);return e._extremes[r._id]=a.findExtremes(r,u,{vpad:c/2}),f.length?(n.extendFlat(f[0].t,{wHover:c/2,tickLen:o}),f):[{t:{empty:!0}}]},calcCommon:l}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751}],1024:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./ohlc_defaults\\\"),a=t(\\\"./attributes\\\");function o(t,e,r,n){r(n+\\\".line.color\\\"),r(n+\\\".line.width\\\",e.line.width),r(n+\\\".line.dash\\\",e.line.dash)}e.exports=function(t,e,r,s){function l(r,i){return n.coerce(t,e,a,r,i)}i(t,e,l,s)?(l(\\\"line.width\\\"),l(\\\"line.dash\\\"),o(t,e,l,\\\"increasing\\\"),o(t,e,l,\\\"decreasing\\\"),l(\\\"text\\\"),l(\\\"hovertext\\\"),l(\\\"tickwidth\\\"),s._requestRangeslider[e.xaxis]=!0):e.visible=!1}},{\\\"../../lib\\\":703,\\\"./attributes\\\":1022,\\\"./ohlc_defaults\\\":1027}],1025:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/axes\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../components/fx\\\"),o=t(\\\"../../components/color\\\"),s=t(\\\"../../lib\\\").fillText,l={increasing:\\\"\\\\u25b2\\\",decreasing:\\\"\\\\u25bc\\\"};function c(t,e,r,n){var i,s,l=t.cd,c=t.xa,u=l[0].trace,f=l[0].t,h=u.type,p=\\\"ohlc\\\"===h?\\\"l\\\":\\\"min\\\",d=\\\"ohlc\\\"===h?\\\"h\\\":\\\"max\\\",g=f.bPos||0,v=function(t){return t.pos+g-e},m=f.bdPos||f.tickLen,y=f.wHover,x=Math.min(1,m/Math.abs(c.r2c(c.range[1])-c.r2c(c.range[0])));function b(t){var e=v(t);return a.inbox(e-y,e+y,i)}function _(t){var e=t[p],n=t[d];return e===n||a.inbox(e-r,n-r,i)}function w(t){return(b(t)+_(t))/2}i=t.maxHoverDistance-x,s=t.maxSpikeDistance-x;var k=a.getDistanceFunction(n,b,_,w);if(a.getClosest(l,k,t),!1===t.index)return null;var T=l[t.index];if(T.empty)return null;var A=u[T.dir],M=A.line.color;return o.opacity(M)&&A.line.width?t.color=M:t.color=A.fillcolor,t.x0=c.c2p(T.pos+g-m,!0),t.x1=c.c2p(T.pos+g+m,!0),t.xLabelVal=T.pos,t.spikeDistance=w(T)*s/i,t.xSpike=c.c2p(T.pos,!0),t}function u(t,e,r,a){var o=t.cd,s=t.ya,l=o[0].trace,u=o[0].t,f=[],h=c(t,e,r,a);if(!h)return[];var p=o[h.index].hi||l.hoverinfo,d=p.split(\\\"+\\\");if(!(\\\"all\\\"===p||-1!==d.indexOf(\\\"y\\\")))return[];for(var g=[\\\"high\\\",\\\"open\\\",\\\"close\\\",\\\"low\\\"],v={},m=0;m<g.length;m++){var y,x=g[m],b=l[x][h.index],_=s.c2p(b,!0);b in v?(y=v[b]).yLabel+=\\\"<br>\\\"+u.labels[x]+n.hoverLabelText(s,b):((y=i.extendFlat({},h)).y0=y.y1=_,y.yLabelVal=b,y.yLabel=u.labels[x]+n.hoverLabelText(s,b),y.name=\\\"\\\",f.push(y),v[b]=y)}return f}function f(t,e,r,i){var a=t.cd,o=t.ya,u=a[0].trace,f=a[0].t,h=c(t,e,r,i);if(!h)return[];var p=a[h.index],d=h.index=p.i,g=p.dir;function v(t){return f.labels[t]+n.hoverLabelText(o,u[t][d])}var m=p.hi||u.hoverinfo,y=m.split(\\\"+\\\"),x=\\\"all\\\"===m,b=x||-1!==y.indexOf(\\\"y\\\"),_=x||-1!==y.indexOf(\\\"text\\\"),w=b?[v(\\\"open\\\"),v(\\\"high\\\"),v(\\\"low\\\"),v(\\\"close\\\")+\\\"  \\\"+l[g]]:[];return _&&s(p,u,w),h.extraText=w.join(\\\"<br>\\\"),h.y0=h.y1=o.c2p(p.yc,!0),[h]}e.exports={hoverPoints:function(t,e,r,n){return t.cd[0].trace.hoverlabel.split?u(t,e,r,n):f(t,e,r,n)},hoverSplit:u,hoverOnPoints:f}},{\\\"../../components/color\\\":580,\\\"../../components/fx\\\":619,\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751}],1026:[function(t,e,r){\\\"use strict\\\";e.exports={moduleType:\\\"trace\\\",name:\\\"ohlc\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"cartesian\\\",\\\"svg\\\",\\\"showLegend\\\"],meta:{},attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),calc:t(\\\"./calc\\\").calc,plot:t(\\\"./plot\\\"),style:t(\\\"./style\\\"),hoverPoints:t(\\\"./hover\\\").hoverPoints,selectPoints:t(\\\"./select\\\")}},{\\\"../../plots/cartesian\\\":762,\\\"./attributes\\\":1022,\\\"./calc\\\":1023,\\\"./defaults\\\":1024,\\\"./hover\\\":1025,\\\"./plot\\\":1028,\\\"./select\\\":1029,\\\"./style\\\":1030}],1027:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../lib\\\");e.exports=function(t,e,r,a){var o=r(\\\"x\\\"),s=r(\\\"open\\\"),l=r(\\\"high\\\"),c=r(\\\"low\\\"),u=r(\\\"close\\\");if(r(\\\"hoverlabel.split\\\"),n.getComponentMethod(\\\"calendars\\\",\\\"handleTraceDefaults\\\")(t,e,[\\\"x\\\"],a),s&&l&&c&&u){var f=Math.min(s.length,l.length,c.length,u.length);return o&&(f=Math.min(f,i.minRowLength(o))),e._length=f,f}}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831}],1028:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../lib\\\");e.exports=function(t,e,r,a){var o=e.xaxis,s=e.yaxis;i.makeTraceGroups(a,r,\\\"trace ohlc\\\").each(function(t){var r=n.select(this),a=t[0],l=a.t,c=a.trace;if(e.isRangePlot||(a.node3=r),!0!==c.visible||l.empty)r.remove();else{var u=l.tickLen,f=r.selectAll(\\\"path\\\").data(i.identity);f.enter().append(\\\"path\\\"),f.exit().remove(),f.attr(\\\"d\\\",function(t){if(t.empty)return\\\"M0,0Z\\\";var e=o.c2p(t.pos,!0),r=o.c2p(t.pos-u,!0),n=o.c2p(t.pos+u,!0);return\\\"M\\\"+r+\\\",\\\"+s.c2p(t.o,!0)+\\\"H\\\"+e+\\\"M\\\"+e+\\\",\\\"+s.c2p(t.h,!0)+\\\"V\\\"+s.c2p(t.l,!0)+\\\"M\\\"+n+\\\",\\\"+s.c2p(t.c,!0)+\\\"H\\\"+e})}})}},{\\\"../../lib\\\":703,d3:157}],1029:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){var r,n=t.cd,i=t.xaxis,a=t.yaxis,o=[],s=n[0].t.bPos||0;if(!1===e)for(r=0;r<n.length;r++)n[r].selected=0;else for(r=0;r<n.length;r++){var l=n[r];e.contains([i.c2p(l.pos+s),a.c2p(l.yc)],null,l.i,t)?(o.push({pointNumber:l.i,x:i.c2d(l.pos),y:a.c2d(l.yc)}),l.selected=1):l.selected=0}return o}},{}],1030:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../components/drawing\\\"),a=t(\\\"../../components/color\\\");e.exports=function(t,e){var r=e?e[0].node3:n.select(t).selectAll(\\\"g.ohlclayer\\\").selectAll(\\\"g.trace\\\");r.style(\\\"opacity\\\",function(t){return t[0].trace.opacity}),r.each(function(t){var e=t[0].trace;n.select(this).selectAll(\\\"path\\\").each(function(t){if(!t.empty){var r=e[t.dir].line;n.select(this).style(\\\"fill\\\",\\\"none\\\").call(a.stroke,r.color).call(i.dashLine,r.dash,r.width).style(\\\"opacity\\\",e.selectedpoints&&!t.selected?.3:1)}})})}},{\\\"../../components/color\\\":580,\\\"../../components/drawing\\\":601,d3:157}],1031:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib/extend\\\").extendFlat,i=t(\\\"../../plots/attributes\\\"),a=t(\\\"../../plots/font_attributes\\\"),o=t(\\\"../../components/colorscale/attributes\\\"),s=t(\\\"../../components/fx/hovertemplate_attributes\\\"),l=t(\\\"../../plots/domain\\\").attributes,c=n({editType:\\\"calc\\\"},o(\\\"line\\\",{editTypeOverride:\\\"calc\\\"}),{shape:{valType:\\\"enumerated\\\",values:[\\\"linear\\\",\\\"hspline\\\"],dflt:\\\"linear\\\",editType:\\\"plot\\\"},hovertemplate:s({editType:\\\"plot\\\",arrayOk:!1},{keys:[\\\"count\\\",\\\"probability\\\"]})});e.exports={domain:l({name:\\\"parcats\\\",trace:!0,editType:\\\"calc\\\"}),hoverinfo:n({},i.hoverinfo,{flags:[\\\"count\\\",\\\"probability\\\"],editType:\\\"plot\\\",arrayOk:!1}),hoveron:{valType:\\\"enumerated\\\",values:[\\\"category\\\",\\\"color\\\",\\\"dimension\\\"],dflt:\\\"category\\\",editType:\\\"plot\\\"},hovertemplate:s({editType:\\\"plot\\\",arrayOk:!1},{keys:[\\\"count\\\",\\\"probability\\\",\\\"category\\\",\\\"categorycount\\\",\\\"colorcount\\\",\\\"bandcolorcount\\\"]}),arrangement:{valType:\\\"enumerated\\\",values:[\\\"perpendicular\\\",\\\"freeform\\\",\\\"fixed\\\"],dflt:\\\"perpendicular\\\",editType:\\\"plot\\\"},bundlecolors:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"plot\\\"},sortpaths:{valType:\\\"enumerated\\\",values:[\\\"forward\\\",\\\"backward\\\"],dflt:\\\"forward\\\",editType:\\\"plot\\\"},labelfont:a({editType:\\\"calc\\\"}),tickfont:a({editType:\\\"calc\\\"}),dimensions:{_isLinkedToArray:\\\"dimension\\\",label:{valType:\\\"string\\\",editType:\\\"calc\\\"},categoryorder:{valType:\\\"enumerated\\\",values:[\\\"trace\\\",\\\"category ascending\\\",\\\"category descending\\\",\\\"array\\\"],dflt:\\\"trace\\\",editType:\\\"calc\\\"},categoryarray:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},ticktext:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},values:{valType:\\\"data_array\\\",dflt:[],editType:\\\"calc\\\"},displayindex:{valType:\\\"integer\\\",editType:\\\"calc\\\"},editType:\\\"calc\\\",visible:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"}},line:c,counts:{valType:\\\"number\\\",min:0,dflt:1,arrayOk:!0,editType:\\\"calc\\\"},customdata:void 0,hoverlabel:void 0,ids:void 0,legendgroup:void 0,opacity:void 0,selectedpoints:void 0,showlegend:void 0}},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plots/attributes\\\":748,\\\"../../plots/domain\\\":776,\\\"../../plots/font_attributes\\\":777}],1032:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/get_data\\\").getModuleCalcData,i=t(\\\"./plot\\\");r.name=\\\"parcats\\\",r.plot=function(t,e,r,a){var o=n(t.calcdata,\\\"parcats\\\");if(o.length){var s=o[0];i(t,s,r,a)}},r.clean=function(t,e,r,n){var i=n._has&&n._has(\\\"parcats\\\"),a=e._has&&e._has(\\\"parcats\\\");i&&!a&&n._paperdiv.selectAll(\\\".parcats\\\").remove()}},{\\\"../../plots/get_data\\\":786,\\\"./plot\\\":1037}],1033:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib/gup\\\").wrap,i=t(\\\"../../components/colorscale/helpers\\\").hasColorscale,a=t(\\\"../../components/colorscale/calc\\\"),o=t(\\\"../../lib/filter_unique.js\\\"),s=t(\\\"../../components/drawing\\\"),l=t(\\\"../../lib\\\");function c(t,e,r){t.valueInds.push(e),t.count+=r}function u(t,e,r){t.valueInds.push(e),t.count+=r}e.exports=function(t,e){var r=l.filterVisible(e.dimensions);if(0===r.length)return[];var f,h,p,d=r.map(function(t){var e;return\\\"trace\\\"===t.categoryorder?e=null:\\\"array\\\"===t.categoryorder?e=t.categoryarray:(e=o(t.values).sort(),\\\"category descending\\\"===t.categoryorder&&(e=e.reverse())),function(t,e){e=null==e?[]:e.map(function(t){return t});var r={},n={},i=[];e.forEach(function(t,e){r[t]=0,n[t]=e});for(var a=0;a<t.length;a++){var o,s=t[a];void 0===r[s]?(r[s]=1,o=e.push(s)-1,n[s]=o):(r[s]++,o=n[s]),i.push(o)}var l=e.map(function(t){return r[t]});return{uniqueValues:e,uniqueCounts:l,inds:i}}(t.values,e)});f=l.isArrayOrTypedArray(e.counts)?e.counts:[e.counts],function(t){var e;if(function(t){for(var e=new Array(t.length),r=0;r<t.length;r++){if(t[r]<0||t[r]>=t.length)return!1;if(void 0!==e[t[r]])return!1;e[t[r]]=!0}return!0}(t.map(function(t){return t.displayindex})))for(e=0;e<t.length;e++)t[e]._displayindex=t[e].displayindex;else for(e=0;e<t.length;e++)t[e]._displayindex=e}(r),r.forEach(function(t,e){!function(t,e){t._categoryarray=e.uniqueValues,null===t.ticktext||void 0===t.ticktext?t._ticktext=[]:t._ticktext=t.ticktext.slice();for(var r=t._ticktext.length;r<e.uniqueValues.length;r++)t._ticktext.push(e.uniqueValues[r])}(t,d[e])});var g,v=e.line;v?(i(e,\\\"line\\\")&&a(t,e,{vals:e.line.color,containerStr:\\\"line\\\",cLetter:\\\"c\\\"}),g=s.tryColorscale(v)):g=l.identity;var m,y,x,b,_=r[0].values.length,w={},k=d.map(function(t){return t.inds});for(p=0,m=0;m<_;m++){var T=[];for(y=0;y<k.length;y++)T.push(k[y][m]);h=f[m%f.length],p+=h;var A=(x=m,b=void 0,b=l.isArrayOrTypedArray(v.color)?v.color[x%v.color.length]:v.color,{color:g(b),rawColor:b}),M=T+\\\"-\\\"+A.rawColor;void 0===w[M]&&(w[M]={categoryInds:T,color:A.color,rawColor:A.rawColor,valueInds:[],count:0}),u(w[M],m,h)}var S,E=r.map(function(t,e){return r=e,n=t._index,i=t._displayindex,a=t.label,{dimensionInd:r,containerInd:n,displayInd:i,dimensionLabel:a,count:p,categories:[],dragX:null};var r,n,i,a});for(m=0;m<_;m++)for(h=f[m%f.length],y=0;y<E.length;y++){var C=E[y].containerInd,L=d[y].inds[m],z=E[y].categories;if(void 0===z[L]){var O=e.dimensions[C]._categoryarray[L],I=e.dimensions[C]._ticktext[L];z[L]={dimensionInd:y,categoryInd:S=L,categoryValue:O,displayInd:S,categoryLabel:I,valueInds:[],count:0,dragY:null}}c(z[L],m,h)}return n(function(t,e,r){var n=t.map(function(t){return t.categories.length}).reduce(function(t,e){return Math.max(t,e)});return{dimensions:t,paths:e,trace:void 0,maxCats:n,count:r}}(E,w,p))}},{\\\"../../components/colorscale/calc\\\":588,\\\"../../components/colorscale/helpers\\\":591,\\\"../../components/drawing\\\":601,\\\"../../lib\\\":703,\\\"../../lib/filter_unique.js\\\":694,\\\"../../lib/gup\\\":701}],1034:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../components/colorscale/helpers\\\").hasColorscale,a=t(\\\"../../components/colorscale/defaults\\\"),o=t(\\\"../../plots/domain\\\").defaults,s=t(\\\"../../plots/array_container_defaults\\\"),l=t(\\\"./attributes\\\"),c=t(\\\"../parcoords/merge_length\\\");function u(t,e){function r(r,i){return n.coerce(t,e,l.dimensions,r,i)}var i=r(\\\"values\\\"),a=r(\\\"visible\\\");if(i&&i.length||(a=e.visible=!1),a){r(\\\"label\\\"),r(\\\"displayindex\\\",e._index);var o,s=t.categoryarray,c=Array.isArray(s)&&s.length>0;c&&(o=\\\"array\\\");var u=r(\\\"categoryorder\\\",o);\\\"array\\\"===u?(r(\\\"categoryarray\\\"),r(\\\"ticktext\\\")):(delete t.categoryarray,delete t.ticktext),c||\\\"array\\\"!==u||(e.categoryorder=\\\"trace\\\")}}e.exports=function(t,e,r,f){function h(r,i){return n.coerce(t,e,l,r,i)}var p=s(t,e,{name:\\\"dimensions\\\",handleItemDefaults:u}),d=function(t,e,r,o,s){s(\\\"line.shape\\\"),s(\\\"line.hovertemplate\\\");var l=s(\\\"line.color\\\",o.colorway[0]);if(i(t,\\\"line\\\")&&n.isArrayOrTypedArray(l)){if(l.length)return s(\\\"line.colorscale\\\"),a(t,e,o,s,{prefix:\\\"line.\\\",cLetter:\\\"c\\\"}),l.length;e.line.color=r}return 1/0}(t,e,r,f,h);o(e,f,h),Array.isArray(p)&&p.length||(e.visible=!1),c(e,p,\\\"values\\\",d),h(\\\"hoveron\\\"),h(\\\"hovertemplate\\\"),h(\\\"arrangement\\\"),h(\\\"bundlecolors\\\"),h(\\\"sortpaths\\\"),h(\\\"counts\\\");var g={family:f.font.family,size:Math.round(f.font.size),color:f.font.color};n.coerceFont(h,\\\"labelfont\\\",g);var v={family:f.font.family,size:Math.round(f.font.size/1.2),color:f.font.color};n.coerceFont(h,\\\"tickfont\\\",v)}},{\\\"../../components/colorscale/defaults\\\":590,\\\"../../components/colorscale/helpers\\\":591,\\\"../../lib\\\":703,\\\"../../plots/array_container_defaults\\\":747,\\\"../../plots/domain\\\":776,\\\"../parcoords/merge_length\\\":1046,\\\"./attributes\\\":1031}],1035:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),calc:t(\\\"./calc\\\"),plot:t(\\\"./plot\\\"),colorbar:{container:\\\"line\\\",min:\\\"cmin\\\",max:\\\"cmax\\\"},moduleType:\\\"trace\\\",name:\\\"parcats\\\",basePlotModule:t(\\\"./base_plot\\\"),categories:[\\\"noOpacity\\\"],meta:{}}},{\\\"./attributes\\\":1031,\\\"./base_plot\\\":1032,\\\"./calc\\\":1033,\\\"./defaults\\\":1034,\\\"./plot\\\":1037}],1036:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../plot_api/plot_api\\\"),a=t(\\\"../../components/fx\\\"),o=t(\\\"../../lib\\\"),s=t(\\\"../../components/drawing\\\"),l=t(\\\"tinycolor2\\\"),c=t(\\\"../../lib/svg_text_utils\\\");function u(t,e,r,i){var a=t.map(function(t,e,r){var n,i=r[0],a=e.margin||{l:80,r:80,t:100,b:80},o=i.trace,s=o.domain,l=e.width,c=e.height,u=Math.floor(l*(s.x[1]-s.x[0])),f=Math.floor(c*(s.y[1]-s.y[0])),h=s.x[0]*l+a.l,p=e.height-s.y[1]*e.height+a.t,d=o.line.shape;n=\\\"all\\\"===o.hoverinfo?[\\\"count\\\",\\\"probability\\\"]:(o.hoverinfo||\\\"\\\").split(\\\"+\\\");var g={trace:o,key:o.uid,model:i,x:h,y:p,width:u,height:f,hoveron:o.hoveron,hoverinfoItems:n,arrangement:o.arrangement,bundlecolors:o.bundlecolors,sortpaths:o.sortpaths,labelfont:o.labelfont,categorylabelfont:o.tickfont,pathShape:d,dragDimension:null,margin:a,paths:[],dimensions:[],graphDiv:t,traceSelection:null,pathSelection:null,dimensionSelection:null};i.dimensions&&(R(g),P(g));return g}.bind(0,e,r)),l=i.selectAll(\\\"g.parcatslayer\\\").data([null]);l.enter().append(\\\"g\\\").attr(\\\"class\\\",\\\"parcatslayer\\\").style(\\\"pointer-events\\\",\\\"all\\\");var u=l.selectAll(\\\"g.trace.parcats\\\").data(a,f),v=u.enter().append(\\\"g\\\").attr(\\\"class\\\",\\\"trace parcats\\\");u.attr(\\\"transform\\\",function(t){return\\\"translate(\\\"+t.x+\\\", \\\"+t.y+\\\")\\\"}),v.append(\\\"g\\\").attr(\\\"class\\\",\\\"paths\\\");var x=u.select(\\\"g.paths\\\").selectAll(\\\"path.path\\\").data(function(t){return t.paths},f);x.attr(\\\"fill\\\",function(t){return t.model.color});var w=x.enter().append(\\\"path\\\").attr(\\\"class\\\",\\\"path\\\").attr(\\\"stroke-opacity\\\",0).attr(\\\"fill\\\",function(t){return t.model.color}).attr(\\\"fill-opacity\\\",0);y(w),x.attr(\\\"d\\\",function(t){return t.svgD}),w.empty()||x.sort(p),x.exit().remove(),x.on(\\\"mouseover\\\",d).on(\\\"mouseout\\\",g).on(\\\"click\\\",m),v.append(\\\"g\\\").attr(\\\"class\\\",\\\"dimensions\\\");var k=u.select(\\\"g.dimensions\\\").selectAll(\\\"g.dimension\\\").data(function(t){return t.dimensions},f);k.enter().append(\\\"g\\\").attr(\\\"class\\\",\\\"dimension\\\"),k.attr(\\\"transform\\\",function(t){return\\\"translate(\\\"+t.x+\\\", 0)\\\"}),k.exit().remove();var T=k.selectAll(\\\"g.category\\\").data(function(t){return t.categories},f),A=T.enter().append(\\\"g\\\").attr(\\\"class\\\",\\\"category\\\");T.attr(\\\"transform\\\",function(t){return\\\"translate(0, \\\"+t.y+\\\")\\\"}),A.append(\\\"rect\\\").attr(\\\"class\\\",\\\"catrect\\\").attr(\\\"pointer-events\\\",\\\"none\\\"),T.select(\\\"rect.catrect\\\").attr(\\\"fill\\\",\\\"none\\\").attr(\\\"width\\\",function(t){return t.width}).attr(\\\"height\\\",function(t){return t.height}),b(A);var z=T.selectAll(\\\"rect.bandrect\\\").data(function(t){return t.bands},f);z.each(function(){o.raiseToTop(this)}),z.attr(\\\"fill\\\",function(t){return t.color});var O=z.enter().append(\\\"rect\\\").attr(\\\"class\\\",\\\"bandrect\\\").attr(\\\"stroke-opacity\\\",0).attr(\\\"fill\\\",function(t){return t.color}).attr(\\\"fill-opacity\\\",0);z.attr(\\\"fill\\\",function(t){return t.color}).attr(\\\"width\\\",function(t){return t.width}).attr(\\\"height\\\",function(t){return t.height}).attr(\\\"y\\\",function(t){return t.y}).attr(\\\"cursor\\\",function(t){return\\\"fixed\\\"===t.parcatsViewModel.arrangement?\\\"default\\\":\\\"perpendicular\\\"===t.parcatsViewModel.arrangement?\\\"ns-resize\\\":\\\"move\\\"}),_(O),z.exit().remove(),A.append(\\\"text\\\").attr(\\\"class\\\",\\\"catlabel\\\").attr(\\\"pointer-events\\\",\\\"none\\\");var I=e._fullLayout.paper_bgcolor;T.select(\\\"text.catlabel\\\").attr(\\\"text-anchor\\\",function(t){return h(t)?\\\"start\\\":\\\"end\\\"}).attr(\\\"alignment-baseline\\\",\\\"middle\\\").style(\\\"text-shadow\\\",I+\\\" -1px  1px 2px, \\\"+I+\\\" 1px  1px 2px, \\\"+I+\\\"  1px -1px 2px, \\\"+I+\\\" -1px -1px 2px\\\").style(\\\"fill\\\",\\\"rgb(0, 0, 0)\\\").attr(\\\"x\\\",function(t){return h(t)?t.width+5:-5}).attr(\\\"y\\\",function(t){return t.height/2}).text(function(t){return t.model.categoryLabel}).each(function(t){s.font(n.select(this),t.parcatsViewModel.categorylabelfont),c.convertToTspans(n.select(this),e)}),A.append(\\\"text\\\").attr(\\\"class\\\",\\\"dimlabel\\\"),T.select(\\\"text.dimlabel\\\").attr(\\\"text-anchor\\\",\\\"middle\\\").attr(\\\"alignment-baseline\\\",\\\"baseline\\\").attr(\\\"cursor\\\",function(t){return\\\"fixed\\\"===t.parcatsViewModel.arrangement?\\\"default\\\":\\\"ew-resize\\\"}).attr(\\\"x\\\",function(t){return t.width/2}).attr(\\\"y\\\",-5).text(function(t,e){return 0===e?t.parcatsViewModel.model.dimensions[t.model.dimensionInd].dimensionLabel:null}).each(function(t){s.font(n.select(this),t.parcatsViewModel.labelfont)}),T.selectAll(\\\"rect.bandrect\\\").on(\\\"mouseover\\\",M).on(\\\"mouseout\\\",S),T.exit().remove(),k.call(n.behavior.drag().origin(function(t){return{x:t.x,y:0}}).on(\\\"dragstart\\\",E).on(\\\"drag\\\",C).on(\\\"dragend\\\",L)),u.each(function(t){t.traceSelection=n.select(this),t.pathSelection=n.select(this).selectAll(\\\"g.paths\\\").selectAll(\\\"path.path\\\"),t.dimensionSelection=n.select(this).selectAll(\\\"g.dimensions\\\").selectAll(\\\"g.dimension\\\")}),u.exit().remove()}function f(t){return t.key}function h(t){var e=t.parcatsViewModel.dimensions.length,r=t.parcatsViewModel.dimensions[e-1].model.dimensionInd;return t.model.dimensionInd===r}function p(t,e){return t.model.rawColor>e.model.rawColor?1:t.model.rawColor<e.model.rawColor?-1:0}function d(t){if(!t.parcatsViewModel.dragDimension&&-1===t.parcatsViewModel.hoverinfoItems.indexOf(\\\"skip\\\")){o.raiseToTop(this),x(n.select(this));var e=v(t);if(t.parcatsViewModel.graphDiv.emit(\\\"plotly_hover\\\",{points:e,event:n.event}),-1===t.parcatsViewModel.hoverinfoItems.indexOf(\\\"none\\\")){var r,i,s,c=n.mouse(this)[0],u=t.parcatsViewModel.graphDiv,f=t.parcatsViewModel.trace,h=u._fullLayout,p=h._paperdiv.node().getBoundingClientRect(),d=t.parcatsViewModel.graphDiv.getBoundingClientRect();for(s=0;s<t.leftXs.length-1;s++)if(t.leftXs[s]+t.dimWidths[s]-2<=c&&c<=t.leftXs[s+1]+2){var g=t.parcatsViewModel.dimensions[s],m=t.parcatsViewModel.dimensions[s+1];r=(g.x+g.width+m.x)/2,i=(t.topYs[s]+t.topYs[s+1]+t.height)/2;break}var y=t.parcatsViewModel.x+r,b=t.parcatsViewModel.y+i,_=l.mostReadable(t.model.color,[\\\"black\\\",\\\"white\\\"]),w=t.model.count,k=w/t.parcatsViewModel.model.count,T={countLabel:w,probabilityLabel:k.toFixed(3)},A=[];-1!==t.parcatsViewModel.hoverinfoItems.indexOf(\\\"count\\\")&&A.push([\\\"Count:\\\",T.countLabel].join(\\\" \\\")),-1!==t.parcatsViewModel.hoverinfoItems.indexOf(\\\"probability\\\")&&A.push([\\\"P:\\\",T.probabilityLabel].join(\\\" \\\"));var M=A.join(\\\"<br>\\\"),S=n.mouse(u)[0];a.loneHover({trace:f,x:y-p.left+d.left,y:b-p.top+d.top,text:M,color:t.model.color,borderColor:\\\"black\\\",fontFamily:'Monaco, \\\"Courier New\\\", monospace',fontSize:10,fontColor:_,idealAlign:S<y?\\\"right\\\":\\\"left\\\",hovertemplate:(f.line||{}).hovertemplate,hovertemplateLabels:T,eventData:[{data:f._input,fullData:f,count:w,probability:k}]},{container:h._hoverlayer.node(),outerContainer:h._paper.node(),gd:u})}}}function g(t){if(!t.parcatsViewModel.dragDimension&&(y(n.select(this)),a.loneUnhover(t.parcatsViewModel.graphDiv._fullLayout._hoverlayer.node()),t.parcatsViewModel.pathSelection.sort(p),-1===t.parcatsViewModel.hoverinfoItems.indexOf(\\\"skip\\\"))){var e=v(t);t.parcatsViewModel.graphDiv.emit(\\\"plotly_unhover\\\",{points:e,event:n.event})}}function v(t){for(var e=[],r=z(t.parcatsViewModel),n=0;n<t.model.valueInds.length;n++){var i=t.model.valueInds[n];e.push({curveNumber:r,pointNumber:i})}return e}function m(t){if(-1===t.parcatsViewModel.hoverinfoItems.indexOf(\\\"skip\\\")){var e=v(t);t.parcatsViewModel.graphDiv.emit(\\\"plotly_click\\\",{points:e,event:n.event})}}function y(t){t.attr(\\\"fill\\\",function(t){return t.model.color}).attr(\\\"fill-opacity\\\",.6).attr(\\\"stroke\\\",\\\"lightgray\\\").attr(\\\"stroke-width\\\",.2).attr(\\\"stroke-opacity\\\",1)}function x(t){t.attr(\\\"fill-opacity\\\",.8).attr(\\\"stroke\\\",function(t){return l.mostReadable(t.model.color,[\\\"black\\\",\\\"white\\\"])}).attr(\\\"stroke-width\\\",.3)}function b(t){t.select(\\\"rect.catrect\\\").attr(\\\"stroke\\\",\\\"black\\\").attr(\\\"stroke-width\\\",1).attr(\\\"stroke-opacity\\\",1)}function _(t){t.attr(\\\"stroke\\\",\\\"black\\\").attr(\\\"stroke-width\\\",.2).attr(\\\"stroke-opacity\\\",1).attr(\\\"fill-opacity\\\",1)}function w(t){var e=t.parcatsViewModel.pathSelection,r=t.categoryViewModel.model.dimensionInd,n=t.categoryViewModel.model.categoryInd;return e.filter(function(e){return e.model.categoryInds[r]===n&&e.model.color===t.color})}function k(t,e,r){var i=n.select(t).datum().parcatsViewModel.graphDiv,a=n.select(t.parentNode).selectAll(\\\"rect.bandrect\\\"),o=[];a.each(function(t){w(t).each(function(t){Array.prototype.push.apply(o,v(t))})}),i.emit(e,{points:o,event:r})}function T(t,e,r){var i=n.select(t).datum(),a=i.parcatsViewModel.graphDiv,o=w(i),s=[];o.each(function(t){Array.prototype.push.apply(s,v(t))}),a.emit(e,{points:s,event:r})}function A(t,e){var r,i,a=n.select(e.parentNode).select(\\\"rect.catrect\\\"),o=a.node().getBoundingClientRect(),s=a.datum(),l=s.parcatsViewModel,c=l.model.dimensions[s.model.dimensionInd],u=l.trace,f=o.top+o.height/2;l.dimensions.length>1&&c.displayInd===l.dimensions.length-1?(r=o.left,i=\\\"left\\\"):(r=o.left+o.width,i=\\\"right\\\");var h=s.model.count,p=s.model.categoryLabel,d=h/s.parcatsViewModel.model.count,g={countLabel:h,categoryLabel:p,probabilityLabel:d.toFixed(3)},v=[];-1!==s.parcatsViewModel.hoverinfoItems.indexOf(\\\"count\\\")&&v.push([\\\"Count:\\\",g.countLabel].join(\\\" \\\")),-1!==s.parcatsViewModel.hoverinfoItems.indexOf(\\\"probability\\\")&&v.push([\\\"P(\\\"+g.categoryLabel+\\\"):\\\",g.probabilityLabel].join(\\\" \\\"));var m=v.join(\\\"<br>\\\");return{trace:u,x:r-t.left,y:f-t.top,text:m,color:\\\"lightgray\\\",borderColor:\\\"black\\\",fontFamily:'Monaco, \\\"Courier New\\\", monospace',fontSize:12,fontColor:\\\"black\\\",idealAlign:i,hovertemplate:u.hovertemplate,hovertemplateLabels:g,eventData:[{data:u._input,fullData:u,count:h,category:p,probability:d}]}}function M(t){if(!t.parcatsViewModel.dragDimension&&-1===t.parcatsViewModel.hoverinfoItems.indexOf(\\\"skip\\\")){if(n.mouse(this)[1]<-1)return;var e,r=t.parcatsViewModel.graphDiv,i=r._fullLayout,s=i._paperdiv.node().getBoundingClientRect(),c=t.parcatsViewModel.hoveron;if(\\\"color\\\"===c?(!function(t){var e=n.select(t).datum(),r=w(e);x(r),r.each(function(){o.raiseToTop(this)}),n.select(t.parentNode).selectAll(\\\"rect.bandrect\\\").filter(function(t){return t.color===e.color}).each(function(){o.raiseToTop(this),n.select(this).attr(\\\"stroke\\\",\\\"black\\\").attr(\\\"stroke-width\\\",1.5)})}(this),T(this,\\\"plotly_hover\\\",n.event)):(!function(t){n.select(t.parentNode).selectAll(\\\"rect.bandrect\\\").each(function(t){var e=w(t);x(e),e.each(function(){o.raiseToTop(this)})}),n.select(t.parentNode).select(\\\"rect.catrect\\\").attr(\\\"stroke\\\",\\\"black\\\").attr(\\\"stroke-width\\\",2.5)}(this),k(this,\\\"plotly_hover\\\",n.event)),-1===t.parcatsViewModel.hoverinfoItems.indexOf(\\\"none\\\"))\\\"category\\\"===c?e=A(s,this):\\\"color\\\"===c?e=function(t,e){var r,i,a=e.getBoundingClientRect(),o=n.select(e).datum(),s=o.categoryViewModel,c=s.parcatsViewModel,u=c.model.dimensions[s.model.dimensionInd],f=c.trace,h=a.y+a.height/2;c.dimensions.length>1&&u.displayInd===c.dimensions.length-1?(r=a.left,i=\\\"left\\\"):(r=a.left+a.width,i=\\\"right\\\");var p=s.model.categoryLabel,d=o.parcatsViewModel.model.count,g=0;o.categoryViewModel.bands.forEach(function(t){t.color===o.color&&(g+=t.count)});var v=s.model.count,m=0;c.pathSelection.each(function(t){t.model.color===o.color&&(m+=t.model.count)});var y=g/d,x=g/m,b=g/v,_={countLabel:d,categoryLabel:p,probabilityLabel:y.toFixed(3)},w=[];-1!==s.parcatsViewModel.hoverinfoItems.indexOf(\\\"count\\\")&&w.push([\\\"Count:\\\",_.countLabel].join(\\\" \\\")),-1!==s.parcatsViewModel.hoverinfoItems.indexOf(\\\"probability\\\")&&(w.push(\\\"P(color \\\\u2229 \\\"+p+\\\"): \\\"+_.probabilityLabel),w.push(\\\"P(\\\"+p+\\\" | color): \\\"+x.toFixed(3)),w.push(\\\"P(color | \\\"+p+\\\"): \\\"+b.toFixed(3)));var k=w.join(\\\"<br>\\\"),T=l.mostReadable(o.color,[\\\"black\\\",\\\"white\\\"]);return{trace:f,x:r-t.left,y:h-t.top,text:k,color:o.color,borderColor:\\\"black\\\",fontFamily:'Monaco, \\\"Courier New\\\", monospace',fontColor:T,fontSize:10,idealAlign:i,hovertemplate:f.hovertemplate,hovertemplateLabels:_,eventData:[{data:f._input,fullData:f,category:p,count:d,probability:y,categorycount:v,colorcount:m,bandcolorcount:g}]}}(s,this):\\\"dimension\\\"===c&&(e=function(t,e){var r=[];return n.select(e.parentNode.parentNode).selectAll(\\\"g.category\\\").select(\\\"rect.catrect\\\").each(function(){r.push(A(t,this))}),r}(s,this)),e&&a.loneHover(e,{container:i._hoverlayer.node(),outerContainer:i._paper.node(),gd:r})}}function S(t){var e=t.parcatsViewModel;if(!e.dragDimension&&(y(e.pathSelection),b(e.dimensionSelection.selectAll(\\\"g.category\\\")),_(e.dimensionSelection.selectAll(\\\"g.category\\\").selectAll(\\\"rect.bandrect\\\")),a.loneUnhover(e.graphDiv._fullLayout._hoverlayer.node()),e.pathSelection.sort(p),-1===e.hoverinfoItems.indexOf(\\\"skip\\\"))){\\\"color\\\"===t.parcatsViewModel.hoveron?T(this,\\\"plotly_unhover\\\",n.event):k(this,\\\"plotly_unhover\\\",n.event)}}function E(t){\\\"fixed\\\"!==t.parcatsViewModel.arrangement&&(t.dragDimensionDisplayInd=t.model.displayInd,t.initialDragDimensionDisplayInds=t.parcatsViewModel.model.dimensions.map(function(t){return t.displayInd}),t.dragHasMoved=!1,t.dragCategoryDisplayInd=null,n.select(this).selectAll(\\\"g.category\\\").select(\\\"rect.catrect\\\").each(function(e){var r=n.mouse(this)[0],i=n.mouse(this)[1];-2<=r&&r<=e.width+2&&-2<=i&&i<=e.height+2&&(t.dragCategoryDisplayInd=e.model.displayInd,t.initialDragCategoryDisplayInds=t.model.categories.map(function(t){return t.displayInd}),e.model.dragY=e.y,o.raiseToTop(this.parentNode),n.select(this.parentNode).selectAll(\\\"rect.bandrect\\\").each(function(e){e.y<i&&i<=e.y+e.height&&(t.potentialClickBand=this)}))}),t.parcatsViewModel.dragDimension=t,a.loneUnhover(t.parcatsViewModel.graphDiv._fullLayout._hoverlayer.node()))}function C(t){if(\\\"fixed\\\"!==t.parcatsViewModel.arrangement&&(t.dragHasMoved=!0,null!==t.dragDimensionDisplayInd)){var e=t.dragDimensionDisplayInd,r=e-1,i=e+1,a=t.parcatsViewModel.dimensions[e];if(null!==t.dragCategoryDisplayInd){var o=a.categories[t.dragCategoryDisplayInd];o.model.dragY+=n.event.dy;var s=o.model.dragY,l=o.model.displayInd,c=a.categories,u=c[l-1],f=c[l+1];void 0!==u&&s<u.y+u.height/2&&(o.model.displayInd=u.model.displayInd,u.model.displayInd=l),void 0!==f&&s+o.height>f.y+f.height/2&&(o.model.displayInd=f.model.displayInd,f.model.displayInd=l),t.dragCategoryDisplayInd=o.model.displayInd}if(null===t.dragCategoryDisplayInd||\\\"freeform\\\"===t.parcatsViewModel.arrangement){a.model.dragX=n.event.x;var h=t.parcatsViewModel.dimensions[r],p=t.parcatsViewModel.dimensions[i];void 0!==h&&a.model.dragX<h.x+h.width&&(a.model.displayInd=h.model.displayInd,h.model.displayInd=e),void 0!==p&&a.model.dragX+a.width>p.x&&(a.model.displayInd=p.model.displayInd,p.model.displayInd=t.dragDimensionDisplayInd),t.dragDimensionDisplayInd=a.model.displayInd}R(t.parcatsViewModel),P(t.parcatsViewModel),I(t.parcatsViewModel),O(t.parcatsViewModel)}}function L(t){if(\\\"fixed\\\"!==t.parcatsViewModel.arrangement&&null!==t.dragDimensionDisplayInd){n.select(this).selectAll(\\\"text\\\").attr(\\\"font-weight\\\",\\\"normal\\\");var e={},r=z(t.parcatsViewModel),a=t.parcatsViewModel.model.dimensions.map(function(t){return t.displayInd}),o=t.initialDragDimensionDisplayInds.some(function(t,e){return t!==a[e]});o&&a.forEach(function(r,n){var i=t.parcatsViewModel.model.dimensions[n].containerInd;e[\\\"dimensions[\\\"+i+\\\"].displayindex\\\"]=r});var s=!1;if(null!==t.dragCategoryDisplayInd){var l=t.model.categories.map(function(t){return t.displayInd});if(s=t.initialDragCategoryDisplayInds.some(function(t,e){return t!==l[e]})){var c=t.model.categories.slice().sort(function(t,e){return t.displayInd-e.displayInd}),u=c.map(function(t){return t.categoryValue}),f=c.map(function(t){return t.categoryLabel});e[\\\"dimensions[\\\"+t.model.containerInd+\\\"].categoryarray\\\"]=[u],e[\\\"dimensions[\\\"+t.model.containerInd+\\\"].ticktext\\\"]=[f],e[\\\"dimensions[\\\"+t.model.containerInd+\\\"].categoryorder\\\"]=\\\"array\\\"}}if(-1===t.parcatsViewModel.hoverinfoItems.indexOf(\\\"skip\\\")&&!t.dragHasMoved&&t.potentialClickBand&&(\\\"color\\\"===t.parcatsViewModel.hoveron?T(t.potentialClickBand,\\\"plotly_click\\\",n.event.sourceEvent):k(t.potentialClickBand,\\\"plotly_click\\\",n.event.sourceEvent)),t.model.dragX=null,null!==t.dragCategoryDisplayInd)t.parcatsViewModel.dimensions[t.dragDimensionDisplayInd].categories[t.dragCategoryDisplayInd].model.dragY=null,t.dragCategoryDisplayInd=null;t.dragDimensionDisplayInd=null,t.parcatsViewModel.dragDimension=null,t.dragHasMoved=null,t.potentialClickBand=null,R(t.parcatsViewModel),P(t.parcatsViewModel),n.transition().duration(300).ease(\\\"cubic-in-out\\\").each(function(){I(t.parcatsViewModel,!0),O(t.parcatsViewModel,!0)}).each(\\\"end\\\",function(){(o||s)&&i.restyle(t.parcatsViewModel.graphDiv,e,[r])})}}function z(t){for(var e,r=t.graphDiv._fullData,n=0;n<r.length;n++)if(t.key===r[n].uid){e=n;break}return e}function O(t,e){var r;void 0===e&&(e=!1),t.pathSelection.data(function(t){return t.paths},f),(r=t.pathSelection,e?r.transition():r).attr(\\\"d\\\",function(t){return t.svgD})}function I(t,e){function r(t){return e?t.transition():t}void 0===e&&(e=!1),t.dimensionSelection.data(function(t){return t.dimensions},f);var i=t.dimensionSelection.selectAll(\\\"g.category\\\").data(function(t){return t.categories},f);r(t.dimensionSelection).attr(\\\"transform\\\",function(t){return\\\"translate(\\\"+t.x+\\\", 0)\\\"}),r(i).attr(\\\"transform\\\",function(t){return\\\"translate(0, \\\"+t.y+\\\")\\\"}),i.select(\\\".dimlabel\\\").text(function(t,e){return 0===e?t.parcatsViewModel.model.dimensions[t.model.dimensionInd].dimensionLabel:null}),i.select(\\\".catlabel\\\").attr(\\\"text-anchor\\\",function(t){return h(t)?\\\"start\\\":\\\"end\\\"}).attr(\\\"x\\\",function(t){return h(t)?t.width+5:-5}).each(function(t){var e,r;h(t)?(e=t.width+5,r=\\\"start\\\"):(e=-5,r=\\\"end\\\"),n.select(this).selectAll(\\\"tspan\\\").attr(\\\"x\\\",e).attr(\\\"text-anchor\\\",r)});var a=i.selectAll(\\\"rect.bandrect\\\").data(function(t){return t.bands},f),s=a.enter().append(\\\"rect\\\").attr(\\\"class\\\",\\\"bandrect\\\").attr(\\\"cursor\\\",\\\"move\\\").attr(\\\"stroke-opacity\\\",0).attr(\\\"fill\\\",function(t){return t.color}).attr(\\\"fill-opacity\\\",0);a.attr(\\\"fill\\\",function(t){return t.color}).attr(\\\"width\\\",function(t){return t.width}).attr(\\\"height\\\",function(t){return t.height}).attr(\\\"y\\\",function(t){return t.y}),_(s),a.each(function(){o.raiseToTop(this)}),a.exit().remove()}function D(t,e,r,i,a){var o,s,l=[],c=[];for(s=0;s<r.length-1;s++)o=n.interpolateNumber(r[s]+t[s],t[s+1]),l.push(o(a)),c.push(o(1-a));var u=\\\"M \\\"+t[0]+\\\",\\\"+e[0];for(u+=\\\"l\\\"+r[0]+\\\",0 \\\",s=1;s<r.length;s++)u+=\\\"C\\\"+l[s-1]+\\\",\\\"+e[s-1]+\\\" \\\"+c[s-1]+\\\",\\\"+e[s]+\\\" \\\"+t[s]+\\\",\\\"+e[s],u+=\\\"l\\\"+r[s]+\\\",0 \\\";for(u+=\\\"l0,\\\"+i+\\\" \\\",u+=\\\"l -\\\"+r[r.length-1]+\\\",0 \\\",s=r.length-2;s>=0;s--)u+=\\\"C\\\"+c[s]+\\\",\\\"+(e[s+1]+i)+\\\" \\\"+l[s]+\\\",\\\"+(e[s]+i)+\\\" \\\"+(t[s]+r[s])+\\\",\\\"+(e[s]+i),u+=\\\"l-\\\"+r[s]+\\\",0 \\\";return u+=\\\"Z\\\"}function P(t){var e=t.dimensions,r=t.model,n=e.map(function(t){return t.categories.map(function(t){return t.y})}),i=t.model.dimensions.map(function(t){return t.categories.map(function(t){return t.displayInd})}),a=t.model.dimensions.map(function(t){return t.displayInd}),o=t.dimensions.map(function(t){return t.model.dimensionInd}),s=e.map(function(t){return t.x}),l=e.map(function(t){return t.width}),c=[];for(var u in r.paths)r.paths.hasOwnProperty(u)&&c.push(r.paths[u]);function f(t){var e=t.categoryInds.map(function(t,e){return i[e][t]});return o.map(function(t){return e[t]})}c.sort(function(e,r){var n=f(e),i=f(r);return\\\"backward\\\"===t.sortpaths&&(n.reverse(),i.reverse()),n.push(e.valueInds[0]),i.push(r.valueInds[0]),t.bundlecolors&&(n.unshift(e.rawColor),i.unshift(r.rawColor)),n<i?-1:n>i?1:0});for(var h=new Array(c.length),p=e[0].model.count,d=e[0].categories.map(function(t){return t.height}).reduce(function(t,e){return t+e}),g=0;g<c.length;g++){var v,m=c[g];v=p>0?d*(m.count/p):0;for(var y,x=new Array(n.length),b=0;b<m.categoryInds.length;b++){var _=m.categoryInds[b],w=i[b][_],k=a[b];x[k]=n[k][w],n[k][w]+=v;var T=t.dimensions[k].categories[w],A=T.bands.length,M=T.bands[A-1];if(void 0===M||m.rawColor!==M.rawColor){var S=void 0===M?0:M.y+M.height;T.bands.push({key:S,color:m.color,rawColor:m.rawColor,height:v,width:T.width,count:m.count,y:S,categoryViewModel:T,parcatsViewModel:t})}else{var E=T.bands[A-1];E.height+=v,E.count+=m.count}}y=\\\"hspline\\\"===t.pathShape?D(s,x,l,v,.5):D(s,x,l,v,0),h[g]={key:m.valueInds[0],model:m,height:v,leftXs:s,topYs:x,dimWidths:l,svgD:y,parcatsViewModel:t}}t.paths=h}function R(t){var e=t.model.dimensions.map(function(t){return{displayInd:t.displayInd,dimensionInd:t.dimensionInd}});e.sort(function(t,e){return t.displayInd-e.displayInd});var r=[];for(var n in e){var i=e[n].dimensionInd,a=t.model.dimensions[i];r.push(F(t,a))}t.dimensions=r}function F(t,e){var r,n=t.model.dimensions.length,i=e.displayInd;r=40+(n>1?(t.width-80-16)/(n-1):0)*i;var a,o,s,l,c,u=[],f=t.model.maxCats,h=e.categories.length,p=e.count,d=t.height-8*(f-1),g=8*(f-h)/2,v=e.categories.map(function(t){return{displayInd:t.displayInd,categoryInd:t.categoryInd}});for(v.sort(function(t,e){return t.displayInd-e.displayInd}),c=0;c<h;c++)l=v[c].categoryInd,o=e.categories[l],a=p>0?o.count/p*d:0,s={key:o.valueInds[0],model:o,width:16,height:a,y:null!==o.dragY?o.dragY:g,bands:[],parcatsViewModel:t},g=g+a+8,u.push(s);return{key:e.dimensionInd,x:null!==e.dragX?e.dragX:r,y:0,width:16,model:e,categories:u,parcatsViewModel:t,dragCategoryDisplayInd:null,dragDimensionDisplayInd:null,initialDragDimensionDisplayInds:null,initialDragCategoryDisplayInds:null,dragHasMoved:null,potentialClickBand:null}}e.exports=function(t,e,r,n){u(r,t,n,e)}},{\\\"../../components/drawing\\\":601,\\\"../../components/fx\\\":619,\\\"../../lib\\\":703,\\\"../../lib/svg_text_utils\\\":727,\\\"../../plot_api/plot_api\\\":738,d3:157,tinycolor2:524}],1037:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./parcats\\\");e.exports=function(t,e,r,i){var a=t._fullLayout,o=a._paper,s=a._size;n(t,o,e,{width:s.w,height:s.h,margin:{t:s.t,r:s.r,b:s.b,l:s.l}},r,i)}},{\\\"./parcats\\\":1036}],1038:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale/attributes\\\"),i=t(\\\"../../plots/cartesian/layout_attributes\\\"),a=t(\\\"../../plots/font_attributes\\\"),o=t(\\\"../../plots/domain\\\").attributes,s=t(\\\"../../lib/extend\\\").extendFlat,l=t(\\\"../../plot_api/plot_template\\\").templatedArray;e.exports={domain:o({name:\\\"parcoords\\\",trace:!0,editType:\\\"calc\\\"}),labelfont:a({editType:\\\"calc\\\"}),tickfont:a({editType:\\\"calc\\\"}),rangefont:a({editType:\\\"calc\\\"}),dimensions:l(\\\"dimension\\\",{label:{valType:\\\"string\\\",editType:\\\"calc\\\"},tickvals:s({},i.tickvals,{editType:\\\"calc\\\"}),ticktext:s({},i.ticktext,{editType:\\\"calc\\\"}),tickformat:{valType:\\\"string\\\",dflt:\\\"3s\\\",editType:\\\"calc\\\"},visible:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"},range:{valType:\\\"info_array\\\",items:[{valType:\\\"number\\\",editType:\\\"calc\\\"},{valType:\\\"number\\\",editType:\\\"calc\\\"}],editType:\\\"calc\\\"},constraintrange:{valType:\\\"info_array\\\",freeLength:!0,dimensions:\\\"1-2\\\",items:[{valType:\\\"number\\\",editType:\\\"calc\\\"},{valType:\\\"number\\\",editType:\\\"calc\\\"}],editType:\\\"calc\\\"},multiselect:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"},values:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},editType:\\\"calc\\\"}),line:s({editType:\\\"calc\\\"},n(\\\"line\\\",{colorscaleDflt:\\\"Viridis\\\",autoColorDflt:!1,editTypeOverride:\\\"calc\\\"}))}},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../lib/extend\\\":693,\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/cartesian/layout_attributes\\\":763,\\\"../../plots/domain\\\":776,\\\"../../plots/font_attributes\\\":777}],1039:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./constants\\\"),i=t(\\\"d3\\\"),a=t(\\\"../../lib/gup\\\").keyFun,o=t(\\\"../../lib/gup\\\").repeat,s=t(\\\"../../lib\\\").sorterAsc,l=n.bar.snapRatio;function c(t,e){return t*(1-l)+e*l}var u=n.bar.snapClose;function f(t,e){return t*(1-u)+e*u}function h(t,e,r,n){if(function(t,e){for(var r=0;r<e.length;r++)if(t>=e[r][0]&&t<=e[r][1])return!0;return!1}(r,n))return r;var i=t?-1:1,a=0,o=e.length-1;if(i<0){var s=a;a=o,o=s}for(var l=e[a],u=l,h=a;i*h<i*o;h+=i){var p=h+i,d=e[p];if(i*r<i*f(l,d))return c(l,u);if(i*r<i*d||p===o)return c(d,l);u=l,l=d}}function p(t){t.attr(\\\"x\\\",-n.bar.captureWidth/2).attr(\\\"width\\\",n.bar.captureWidth)}function d(t){t.attr(\\\"visibility\\\",\\\"visible\\\").style(\\\"visibility\\\",\\\"visible\\\").attr(\\\"fill\\\",\\\"yellow\\\").attr(\\\"opacity\\\",0)}function g(t){if(!t.brush.filterSpecified)return\\\"0,\\\"+t.height;for(var e,r,n,i=v(t.brush.filter.getConsolidated(),t.height),a=[0],o=i.length?i[0][0]:null,s=0;s<i.length;s++)r=(e=i[s])[1]-e[0],a.push(o),a.push(r),(n=s+1)<i.length&&(o=i[n][0]-e[1]);return a.push(t.height),a}function v(t,e){return t.map(function(t){return t.map(function(t){return t*e}).sort(s)})}function m(){i.select(document.body).style(\\\"cursor\\\",null)}function y(t){t.attr(\\\"stroke-dasharray\\\",g)}function x(t,e){var r=i.select(t).selectAll(\\\".highlight, .highlight-shadow\\\");y(e?r.transition().duration(n.bar.snapDuration).each(\\\"end\\\",e):r)}function b(t,e){var r,i=t.brush,a=NaN,o={};if(i.filterSpecified){var s=t.height,l=i.filter.getConsolidated(),c=v(l,s),u=NaN,f=NaN,h=NaN;for(r=0;r<=c.length;r++){var p=c[r];if(p&&p[0]<=e&&e<=p[1]){u=r;break}if(f=r?r-1:NaN,p&&p[0]>e){h=r;break}}if(a=u,isNaN(a)&&(a=isNaN(f)||isNaN(h)?isNaN(f)?h:f:e-c[f][1]<c[h][0]-e?f:h),!isNaN(a)){var d=c[a],g=function(t,e){var r=n.bar.handleHeight;if(!(e>t[1]+r||e<t[0]-r))return e>=.9*t[1]+.1*t[0]?\\\"n\\\":e<=.9*t[0]+.1*t[1]?\\\"s\\\":\\\"ns\\\"}(d,e);g&&(o.interval=l[a],o.intervalPix=d,o.region=g)}}if(t.ordinal&&!o.region){var m=t.unitTickvals,y=t.unitToPaddedPx.invert(e);for(r=0;r<m.length;r++){var x=[.25*m[Math.max(r-1,0)]+.75*m[r],.25*m[Math.min(r+1,m.length-1)]+.75*m[r]];if(y>=x[0]&&y<=x[1]){o.clickableOrdinalRange=x;break}}}return o}function _(t){t.on(\\\"mousemove\\\",function(t){if(i.event.preventDefault(),!t.parent.inBrushDrag){var e=b(t,t.height-i.mouse(this)[1]-2*n.verticalPadding),r=\\\"crosshair\\\";e.clickableOrdinalRange?r=\\\"pointer\\\":e.region&&(r=e.region+\\\"-resize\\\"),i.select(document.body).style(\\\"cursor\\\",r)}}).on(\\\"mouseleave\\\",function(t){t.parent.inBrushDrag||m()}).call(i.behavior.drag().on(\\\"dragstart\\\",function(t){i.event.sourceEvent.stopPropagation();var e=t.height-i.mouse(this)[1]-2*n.verticalPadding,r=t.unitToPaddedPx.invert(e),a=t.brush,o=b(t,e),s=o.interval,l=a.svgBrush;if(l.wasDragged=!1,l.grabbingBar=\\\"ns\\\"===o.region,l.grabbingBar){var c=s.map(t.unitToPaddedPx);l.grabPoint=e-c[0]-n.verticalPadding,l.barLength=c[1]-c[0]}l.clickableOrdinalRange=o.clickableOrdinalRange,l.stayingIntervals=t.multiselect&&a.filterSpecified?a.filter.getConsolidated():[],s&&(l.stayingIntervals=l.stayingIntervals.filter(function(t){return t[0]!==s[0]&&t[1]!==s[1]})),l.startExtent=o.region?s[\\\"s\\\"===o.region?1:0]:r,t.parent.inBrushDrag=!0,l.brushStartCallback()}).on(\\\"drag\\\",function(t){i.event.sourceEvent.stopPropagation();var e=t.height-i.mouse(this)[1]-2*n.verticalPadding,r=t.brush.svgBrush;r.wasDragged=!0,r.grabbingBar?r.newExtent=[e-r.grabPoint,e+r.barLength-r.grabPoint].map(t.unitToPaddedPx.invert):r.newExtent=[r.startExtent,t.unitToPaddedPx.invert(e)].sort(s);var a=Math.max(0,-r.newExtent[0]),o=Math.max(0,r.newExtent[1]-1);r.newExtent[0]+=a,r.newExtent[1]-=o,r.grabbingBar&&(r.newExtent[1]+=a,r.newExtent[0]-=o),t.brush.filterSpecified=!0,r.extent=r.stayingIntervals.concat([r.newExtent]),r.brushCallback(t),x(this.parentNode)}).on(\\\"dragend\\\",function(t){i.event.sourceEvent.stopPropagation();var e=t.brush,r=e.filter,n=e.svgBrush,a=n.grabbingBar;if(n.grabbingBar=!1,n.grabLocation=void 0,t.parent.inBrushDrag=!1,m(),!n.wasDragged)return n.wasDragged=void 0,n.clickableOrdinalRange?e.filterSpecified&&t.multiselect?n.extent.push(n.clickableOrdinalRange):(n.extent=[n.clickableOrdinalRange],e.filterSpecified=!0):a?(n.extent=n.stayingIntervals,0===n.extent.length&&k(e)):k(e),n.brushCallback(t),x(this.parentNode),void n.brushEndCallback(e.filterSpecified?r.getConsolidated():[]);var o=function(){r.set(r.getConsolidated())};if(t.ordinal){var s=t.unitTickvals;s[s.length-1]<s[0]&&s.reverse(),n.newExtent=[h(0,s,n.newExtent[0],n.stayingIntervals),h(1,s,n.newExtent[1],n.stayingIntervals)];var l=n.newExtent[1]>n.newExtent[0];n.extent=n.stayingIntervals.concat(l?[n.newExtent]:[]),n.extent.length||k(e),n.brushCallback(t),l?x(this.parentNode,o):(o(),x(this.parentNode))}else o();n.brushEndCallback(e.filterSpecified?r.getConsolidated():[])}))}function w(t,e){return t[0]-e[0]}function k(t){t.filterSpecified=!1,t.svgBrush.extent=[[0,1]]}function T(t){for(var e,r=t.slice(),n=[],i=r.shift();i;){for(e=i.slice();(i=r.shift())&&i[0]<=e[1];)e[1]=Math.max(e[1],i[1]);n.push(e)}return n}e.exports={makeBrush:function(t,e,r,n,i,a){var o,l=function(){var t,e,r=[];return{set:function(n){r=n.map(function(t){return t.slice().sort(s)}).sort(w),t=T(r),e=r.reduce(function(t,e){return[Math.min(t[0],e[0]),Math.max(t[1],e[1])]},[1/0,-1/0])},get:function(){return r.slice()},getConsolidated:function(){return t},getBounds:function(){return e}}}();return l.set(r),{filter:l,filterSpecified:e,svgBrush:{extent:[],brushStartCallback:n,brushCallback:(o=i,function(t){var e=t.brush,r=function(t){return t.svgBrush.extent.map(function(t){return t.slice()})}(e).slice();e.filter.set(r),o()}),brushEndCallback:a}}},ensureAxisBrush:function(t){var e=t.selectAll(\\\".\\\"+n.cn.axisBrush).data(o,a);e.enter().append(\\\"g\\\").classed(n.cn.axisBrush,!0),function(t){var e=t.selectAll(\\\".background\\\").data(o);e.enter().append(\\\"rect\\\").classed(\\\"background\\\",!0).call(p).call(d).style(\\\"pointer-events\\\",\\\"auto\\\").attr(\\\"transform\\\",\\\"translate(0 \\\"+n.verticalPadding+\\\")\\\"),e.call(_).attr(\\\"height\\\",function(t){return t.height-n.verticalPadding});var r=t.selectAll(\\\".highlight-shadow\\\").data(o);r.enter().append(\\\"line\\\").classed(\\\"highlight-shadow\\\",!0).attr(\\\"x\\\",-n.bar.width/2).attr(\\\"stroke-width\\\",n.bar.width+n.bar.strokeWidth).attr(\\\"stroke\\\",n.bar.strokeColor).attr(\\\"opacity\\\",n.bar.strokeOpacity).attr(\\\"stroke-linecap\\\",\\\"butt\\\"),r.attr(\\\"y1\\\",function(t){return t.height}).call(y);var i=t.selectAll(\\\".highlight\\\").data(o);i.enter().append(\\\"line\\\").classed(\\\"highlight\\\",!0).attr(\\\"x\\\",-n.bar.width/2).attr(\\\"stroke-width\\\",n.bar.width-n.bar.strokeWidth).attr(\\\"stroke\\\",n.bar.fillColor).attr(\\\"opacity\\\",n.bar.fillOpacity).attr(\\\"stroke-linecap\\\",\\\"butt\\\"),i.attr(\\\"y1\\\",function(t){return t.height}).call(y)}(e)},cleanRanges:function(t,e){if(Array.isArray(t[0])?(t=t.map(function(t){return t.sort(s)}),t=e.multiselect?T(t.sort(w)):[t[0]]):t=[t.sort(s)],e.tickvals){var r=e.tickvals.slice().sort(s);if(!(t=t.map(function(t){var e=[h(0,r,t[0],[]),h(1,r,t[1],[])];if(e[1]>e[0])return e}).filter(function(t){return t})).length)return}return t.length>1?t:t[0]}}},{\\\"../../lib\\\":703,\\\"../../lib/gup\\\":701,\\\"./constants\\\":1042,d3:157}],1040:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../plots/get_data\\\").getModuleCalcData,a=t(\\\"./plot\\\"),o=t(\\\"../../constants/xmlns_namespaces\\\");r.name=\\\"parcoords\\\",r.plot=function(t){var e=i(t.calcdata,\\\"parcoords\\\")[0];e.length&&a(t,e)},r.clean=function(t,e,r,n){var i=n._has&&n._has(\\\"parcoords\\\"),a=e._has&&e._has(\\\"parcoords\\\");i&&!a&&(n._paperdiv.selectAll(\\\".parcoords\\\").remove(),n._glimages.selectAll(\\\"*\\\").remove())},r.toSVG=function(t){var e=t._fullLayout._glimages,r=n.select(t).selectAll(\\\".svg-container\\\");r.filter(function(t,e){return e===r.size()-1}).selectAll(\\\".gl-canvas-context, .gl-canvas-focus\\\").each(function(){var t=this.toDataURL(\\\"image/png\\\");e.append(\\\"svg:image\\\").attr({xmlns:o.svg,\\\"xlink:href\\\":t,preserveAspectRatio:\\\"none\\\",x:0,y:0,width:this.width,height:this.height})}),window.setTimeout(function(){n.selectAll(\\\"#filterBarPattern\\\").attr(\\\"id\\\",\\\"filterBarPattern\\\")},60)}},{\\\"../../constants/xmlns_namespaces\\\":681,\\\"../../plots/get_data\\\":786,\\\"./plot\\\":1048,d3:157}],1041:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../lib/gup\\\").wrap;function o(t){return i.isTypedArray(t)?Array.prototype.slice.call(t):t}e.exports=function(t,e){for(var r=0;r<e.dimensions.length;r++)e.dimensions[r].values=o(e.dimensions[r].values);var i,s;return e.line.color=o(e.line.color),n.hasColorscale(e,\\\"line\\\")&&Array.isArray(e.line.color)?(i=e.line.color,s=n.extractOpts(e.line).colorscale,n.calc(t,e,{vals:i,containerStr:\\\"line\\\",cLetter:\\\"c\\\"})):(i=function(t){for(var e=new Array(t),r=0;r<t;r++)e[r]=.5;return e}(e._length),s=[[0,e.line.color],[1,e.line.color]]),a({lineColor:i,cscale:s})}},{\\\"../../components/colorscale\\\":592,\\\"../../lib\\\":703,\\\"../../lib/gup\\\":701}],1042:[function(t,e,r){\\\"use strict\\\";e.exports={maxDimensionCount:60,overdrag:45,verticalPadding:2,tickDistance:50,canvasPixelRatio:1,blockLineCount:5e3,layers:[\\\"contextLineLayer\\\",\\\"focusLineLayer\\\",\\\"pickLineLayer\\\"],axisTitleOffset:28,axisExtentOffset:10,bar:{width:4,captureWidth:10,fillColor:\\\"magenta\\\",fillOpacity:1,snapDuration:150,snapRatio:.25,snapClose:.01,strokeColor:\\\"white\\\",strokeOpacity:1,strokeWidth:1,handleHeight:8,handleOpacity:1,handleOverlap:0},cn:{axisExtentText:\\\"axis-extent-text\\\",parcoordsLineLayers:\\\"parcoords-line-layers\\\",parcoordsLineLayer:\\\"parcoords-lines\\\",parcoords:\\\"parcoords\\\",parcoordsControlView:\\\"parcoords-control-view\\\",yAxis:\\\"y-axis\\\",axisOverlays:\\\"axis-overlays\\\",axis:\\\"axis\\\",axisHeading:\\\"axis-heading\\\",axisTitle:\\\"axis-title\\\",axisExtent:\\\"axis-extent\\\",axisExtentTop:\\\"axis-extent-top\\\",axisExtentTopText:\\\"axis-extent-top-text\\\",axisExtentBottom:\\\"axis-extent-bottom\\\",axisExtentBottomText:\\\"axis-extent-bottom-text\\\",axisBrush:\\\"axis-brush\\\"},id:{filterBarPattern:\\\"filter-bar-pattern\\\"}}},{}],1043:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../components/colorscale/helpers\\\").hasColorscale,a=t(\\\"../../components/colorscale/defaults\\\"),o=t(\\\"../../plots/domain\\\").defaults,s=t(\\\"../../plots/array_container_defaults\\\"),l=t(\\\"./attributes\\\"),c=t(\\\"./axisbrush\\\"),u=t(\\\"./constants\\\").maxDimensionCount,f=t(\\\"./merge_length\\\");function h(t,e){function r(r,i){return n.coerce(t,e,l.dimensions,r,i)}var i=r(\\\"values\\\"),a=r(\\\"visible\\\");if(i&&i.length||(a=e.visible=!1),a){r(\\\"label\\\"),r(\\\"tickvals\\\"),r(\\\"ticktext\\\"),r(\\\"tickformat\\\"),r(\\\"range\\\"),r(\\\"multiselect\\\");var o=r(\\\"constraintrange\\\");o&&(e.constraintrange=c.cleanRanges(o,e))}}e.exports=function(t,e,r,c){function p(r,i){return n.coerce(t,e,l,r,i)}var d=t.dimensions;Array.isArray(d)&&d.length>u&&(n.log(\\\"parcoords traces support up to \\\"+u+\\\" dimensions at the moment\\\"),d.splice(u));var g=s(t,e,{name:\\\"dimensions\\\",handleItemDefaults:h}),v=function(t,e,r,o,s){var l=s(\\\"line.color\\\",r);if(i(t,\\\"line\\\")&&n.isArrayOrTypedArray(l)){if(l.length)return s(\\\"line.colorscale\\\"),a(t,e,o,s,{prefix:\\\"line.\\\",cLetter:\\\"c\\\"}),l.length;e.line.color=r}return 1/0}(t,e,r,c,p);o(e,c,p),Array.isArray(g)&&g.length||(e.visible=!1),f(e,g,\\\"values\\\",v);var m={family:c.font.family,size:Math.round(c.font.size/1.2),color:c.font.color};n.coerceFont(p,\\\"labelfont\\\",m),n.coerceFont(p,\\\"tickfont\\\",m),n.coerceFont(p,\\\"rangefont\\\",m)}},{\\\"../../components/colorscale/defaults\\\":590,\\\"../../components/colorscale/helpers\\\":591,\\\"../../lib\\\":703,\\\"../../plots/array_container_defaults\\\":747,\\\"../../plots/domain\\\":776,\\\"./attributes\\\":1038,\\\"./axisbrush\\\":1039,\\\"./constants\\\":1042,\\\"./merge_length\\\":1046}],1044:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),calc:t(\\\"./calc\\\"),plot:t(\\\"./plot\\\"),colorbar:{container:\\\"line\\\",min:\\\"cmin\\\",max:\\\"cmax\\\"},moduleType:\\\"trace\\\",name:\\\"parcoords\\\",basePlotModule:t(\\\"./base_plot\\\"),categories:[\\\"gl\\\",\\\"regl\\\",\\\"noOpacity\\\",\\\"noHover\\\"],meta:{}}},{\\\"./attributes\\\":1038,\\\"./base_plot\\\":1040,\\\"./calc\\\":1041,\\\"./defaults\\\":1043,\\\"./plot\\\":1048}],1045:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"glslify\\\"),i=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec4 p0, p1, p2, p3,\\\\n               p4, p5, p6, p7,\\\\n               p8, p9, pa, pb,\\\\n               pc, pd, pe;\\\\n\\\\nattribute vec4 pf;\\\\n\\\\nuniform mat4 dim1A, dim2A, dim1B, dim2B, dim1C, dim2C, dim1D, dim2D,\\\\n             loA, hiA, loB, hiB, loC, hiC, loD, hiD;\\\\n\\\\nuniform vec2 resolution,\\\\n             viewBoxPosition,\\\\n             viewBoxSize;\\\\n\\\\nuniform sampler2D palette;\\\\nuniform sampler2D mask;\\\\nuniform float maskHeight;\\\\n\\\\nuniform vec2 colorClamp;\\\\n\\\\nvarying vec4 fragColor;\\\\n\\\\nvec4 unit_1 = vec4(1, 1, 1, 1);\\\\n\\\\nfloat val(mat4 p, mat4 v) {\\\\n    return dot(matrixCompMult(p, v) * unit_1, unit_1);\\\\n}\\\\n\\\\nfloat axisY(\\\\n        float x,\\\\n        mat4 d[4],\\\\n        mat4 dim1A, mat4 dim2A, mat4 dim1B, mat4 dim2B, mat4 dim1C, mat4 dim2C, mat4 dim1D, mat4 dim2D\\\\n    ) {\\\\n\\\\n    float y1 = val(d[0], dim1A) + val(d[1], dim1B) + val(d[2], dim1C) + val(d[3], dim1D);\\\\n    float y2 = val(d[0], dim2A) + val(d[1], dim2B) + val(d[2], dim2C) + val(d[3], dim2D);\\\\n    return y1 * (1.0 - x) + y2 * x;\\\\n}\\\\n\\\\nconst int bitsPerByte = 8;\\\\n\\\\nint mod2(int a) {\\\\n    return a - 2 * (a / 2);\\\\n}\\\\n\\\\nint mod8(int a) {\\\\n    return a - 8 * (a / 8);\\\\n}\\\\n\\\\nvec4 zero = vec4(0, 0, 0, 0);\\\\nvec4 unit_0 = vec4(1, 1, 1, 1);\\\\nvec2 xyProjection = vec2(1, 1);\\\\n\\\\nmat4 mclamp(mat4 m, mat4 lo, mat4 hi) {\\\\n    return mat4(clamp(m[0], lo[0], hi[0]),\\\\n                clamp(m[1], lo[1], hi[1]),\\\\n                clamp(m[2], lo[2], hi[2]),\\\\n                clamp(m[3], lo[3], hi[3]));\\\\n}\\\\n\\\\nbool mshow(mat4 p, mat4 lo, mat4 hi) {\\\\n    return mclamp(p, lo, hi) == p;\\\\n}\\\\n\\\\nbool withinBoundingBox(\\\\n        mat4 d[4],\\\\n        mat4 loA, mat4 hiA, mat4 loB, mat4 hiB, mat4 loC, mat4 hiC, mat4 loD, mat4 hiD\\\\n    ) {\\\\n\\\\n    return mshow(d[0], loA, hiA) &&\\\\n           mshow(d[1], loB, hiB) &&\\\\n           mshow(d[2], loC, hiC) &&\\\\n           mshow(d[3], loD, hiD);\\\\n}\\\\n\\\\nbool withinRasterMask(mat4 d[4], sampler2D mask, float height) {\\\\n    bool result = true;\\\\n    int bitInByteStepper;\\\\n    float valY, valueY, scaleX;\\\\n    int hit, bitmask, valX;\\\\n    for(int i = 0; i < 4; i++) {\\\\n        for(int j = 0; j < 4; j++) {\\\\n            for(int k = 0; k < 4; k++) {\\\\n                bitInByteStepper = mod8(j * 4 + k);\\\\n                valX = i * 2 + j / 2;\\\\n                valY = d[i][j][k];\\\\n                valueY = valY * (height - 1.0) + 0.5;\\\\n                scaleX = (float(valX) + 0.5) / 8.0;\\\\n                hit = int(texture2D(mask, vec2(scaleX, (valueY + 0.5) / height))[3] * 255.0) / int(pow(2.0, float(bitInByteStepper)));\\\\n                result = result && mod2(hit) == 1;\\\\n            }\\\\n        }\\\\n    }\\\\n    return result;\\\\n}\\\\n\\\\nvec4 position(\\\\n        float depth,\\\\n        vec2 resolution, vec2 viewBoxPosition, vec2 viewBoxSize,\\\\n        mat4 dims[4],\\\\n        float signum,\\\\n        mat4 dim1A, mat4 dim2A, mat4 dim1B, mat4 dim2B, mat4 dim1C, mat4 dim2C, mat4 dim1D, mat4 dim2D,\\\\n        mat4 loA, mat4 hiA, mat4 loB, mat4 hiB, mat4 loC, mat4 hiC, mat4 loD, mat4 hiD,\\\\n        sampler2D mask, float maskHeight\\\\n    ) {\\\\n\\\\n    float x = 0.5 * signum + 0.5;\\\\n    float y = axisY(x, dims, dim1A, dim2A, dim1B, dim2B, dim1C, dim2C, dim1D, dim2D);\\\\n\\\\n    float show = float(\\\\n                            withinBoundingBox(dims, loA, hiA, loB, hiB, loC, hiC, loD, hiD)\\\\n                         && withinRasterMask(dims, mask, maskHeight)\\\\n                      );\\\\n\\\\n    vec2 viewBoxXY = viewBoxPosition + viewBoxSize * vec2(x, y);\\\\n    float depthOrHide = depth + 2.0 * (1.0 - show);\\\\n\\\\n    return vec4(\\\\n        xyProjection * (2.0 * viewBoxXY / resolution - 1.0),\\\\n        depthOrHide,\\\\n        1.0\\\\n    );\\\\n}\\\\n\\\\nvoid main() {\\\\n\\\\n    float prominence = abs(pf[3]);\\\\n\\\\n    mat4 p[4];\\\\n    p[0] = mat4(p0, p1, p2, p3);\\\\n    p[1] = mat4(p4, p5, p6, p7);\\\\n    p[2] = mat4(p8, p9, pa, pb);\\\\n    p[3] = mat4(pc, pd, pe, abs(pf));\\\\n\\\\n    gl_Position = position(\\\\n        1.0 - prominence,\\\\n        resolution, viewBoxPosition, viewBoxSize,\\\\n        p,\\\\n        sign(pf[3]),\\\\n        dim1A, dim2A, dim1B, dim2B, dim1C, dim2C, dim1D, dim2D,\\\\n        loA, hiA, loB, hiB, loC, hiC, loD, hiD,\\\\n        mask, maskHeight\\\\n    );\\\\n\\\\n    float clampedColorIndex = clamp((prominence - colorClamp[0]) / (colorClamp[1] - colorClamp[0]), 0.0, 1.0);\\\\n    fragColor = texture2D(palette, vec2((clampedColorIndex * 255.0 + 0.5) / 256.0, 0.5));\\\\n}\\\\n\\\"]),a=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec4 p0, p1, p2, p3,\\\\n               p4, p5, p6, p7,\\\\n               p8, p9, pa, pb,\\\\n               pc, pd, pe;\\\\n\\\\nattribute vec4 pf;\\\\n\\\\nuniform mat4 dim1A, dim2A, dim1B, dim2B, dim1C, dim2C, dim1D, dim2D;\\\\n\\\\nuniform vec2 resolution,\\\\n             viewBoxPosition,\\\\n             viewBoxSize;\\\\n\\\\nuniform sampler2D palette;\\\\n\\\\nuniform vec2 colorClamp;\\\\n\\\\nvarying vec4 fragColor;\\\\n\\\\nvec2 xyProjection = vec2(1, 1);\\\\n\\\\nvec4 unit = vec4(1, 1, 1, 1);\\\\n\\\\nfloat val(mat4 p, mat4 v) {\\\\n    return dot(matrixCompMult(p, v) * unit, unit);\\\\n}\\\\n\\\\nfloat axisY(\\\\n        float x,\\\\n        mat4 d[4],\\\\n        mat4 dim1A, mat4 dim2A, mat4 dim1B, mat4 dim2B, mat4 dim1C, mat4 dim2C, mat4 dim1D, mat4 dim2D\\\\n    ) {\\\\n\\\\n    float y1 = val(d[0], dim1A) + val(d[1], dim1B) + val(d[2], dim1C) + val(d[3], dim1D);\\\\n    float y2 = val(d[0], dim2A) + val(d[1], dim2B) + val(d[2], dim2C) + val(d[3], dim2D);\\\\n    return y1 * (1.0 - x) + y2 * x;\\\\n}\\\\n\\\\nvec4 position(\\\\n        float depth,\\\\n        vec2 resolution, vec2 viewBoxPosition, vec2 viewBoxSize,\\\\n        mat4 dims[4],\\\\n        float signum,\\\\n        mat4 dim1A, mat4 dim2A, mat4 dim1B, mat4 dim2B, mat4 dim1C, mat4 dim2C, mat4 dim1D, mat4 dim2D\\\\n    ) {\\\\n\\\\n    float x = 0.5 * signum + 0.5;\\\\n    float y = axisY(x, dims, dim1A, dim2A, dim1B, dim2B, dim1C, dim2C, dim1D, dim2D);\\\\n\\\\n    vec2 viewBoxXY = viewBoxPosition + viewBoxSize * vec2(x, y);\\\\n\\\\n    return vec4(\\\\n        xyProjection * (2.0 * viewBoxXY / resolution - 1.0),\\\\n        depth,\\\\n        1.0\\\\n    );\\\\n}\\\\n\\\\nvoid main() {\\\\n\\\\n    float prominence = abs(pf[3]);\\\\n\\\\n    mat4 p[4];\\\\n    p[0] = mat4(p0, p1, p2, p3);\\\\n    p[1] = mat4(p4, p5, p6, p7);\\\\n    p[2] = mat4(p8, p9, pa, pb);\\\\n    p[3] = mat4(pc, pd, pe, abs(pf));\\\\n\\\\n    gl_Position = position(\\\\n        1.0 - prominence,\\\\n        resolution, viewBoxPosition, viewBoxSize,\\\\n        p,\\\\n        sign(pf[3]),\\\\n        dim1A, dim2A, dim1B, dim2B, dim1C, dim2C, dim1D, dim2D\\\\n    );\\\\n\\\\n    float clampedColorIndex = clamp((prominence - colorClamp[0]) / (colorClamp[1] - colorClamp[0]), 0.0, 1.0);\\\\n    fragColor = texture2D(palette, vec2((clampedColorIndex * 255.0 + 0.5) / 256.0, 0.5));\\\\n}\\\\n\\\"]),o=n([\\\"precision highp float;\\\\n#define GLSLIFY 1\\\\n\\\\nattribute vec4 p0, p1, p2, p3,\\\\n               p4, p5, p6, p7,\\\\n               p8, p9, pa, pb,\\\\n               pc, pd, pe;\\\\n\\\\nattribute vec4 pf;\\\\n\\\\nuniform mat4 dim1A, dim2A, dim1B, dim2B, dim1C, dim2C, dim1D, dim2D,\\\\n             loA, hiA, loB, hiB, loC, hiC, loD, hiD;\\\\n\\\\nuniform vec2 resolution,\\\\n             viewBoxPosition,\\\\n             viewBoxSize;\\\\n\\\\nuniform sampler2D mask;\\\\nuniform float maskHeight;\\\\n\\\\nuniform vec2 colorClamp;\\\\n\\\\nvarying vec4 fragColor;\\\\n\\\\nvec4 unit_1 = vec4(1, 1, 1, 1);\\\\n\\\\nfloat val(mat4 p, mat4 v) {\\\\n    return dot(matrixCompMult(p, v) * unit_1, unit_1);\\\\n}\\\\n\\\\nfloat axisY(\\\\n        float x,\\\\n        mat4 d[4],\\\\n        mat4 dim1A, mat4 dim2A, mat4 dim1B, mat4 dim2B, mat4 dim1C, mat4 dim2C, mat4 dim1D, mat4 dim2D\\\\n    ) {\\\\n\\\\n    float y1 = val(d[0], dim1A) + val(d[1], dim1B) + val(d[2], dim1C) + val(d[3], dim1D);\\\\n    float y2 = val(d[0], dim2A) + val(d[1], dim2B) + val(d[2], dim2C) + val(d[3], dim2D);\\\\n    return y1 * (1.0 - x) + y2 * x;\\\\n}\\\\n\\\\nconst int bitsPerByte = 8;\\\\n\\\\nint mod2(int a) {\\\\n    return a - 2 * (a / 2);\\\\n}\\\\n\\\\nint mod8(int a) {\\\\n    return a - 8 * (a / 8);\\\\n}\\\\n\\\\nvec4 zero = vec4(0, 0, 0, 0);\\\\nvec4 unit_0 = vec4(1, 1, 1, 1);\\\\nvec2 xyProjection = vec2(1, 1);\\\\n\\\\nmat4 mclamp(mat4 m, mat4 lo, mat4 hi) {\\\\n    return mat4(clamp(m[0], lo[0], hi[0]),\\\\n                clamp(m[1], lo[1], hi[1]),\\\\n                clamp(m[2], lo[2], hi[2]),\\\\n                clamp(m[3], lo[3], hi[3]));\\\\n}\\\\n\\\\nbool mshow(mat4 p, mat4 lo, mat4 hi) {\\\\n    return mclamp(p, lo, hi) == p;\\\\n}\\\\n\\\\nbool withinBoundingBox(\\\\n        mat4 d[4],\\\\n        mat4 loA, mat4 hiA, mat4 loB, mat4 hiB, mat4 loC, mat4 hiC, mat4 loD, mat4 hiD\\\\n    ) {\\\\n\\\\n    return mshow(d[0], loA, hiA) &&\\\\n           mshow(d[1], loB, hiB) &&\\\\n           mshow(d[2], loC, hiC) &&\\\\n           mshow(d[3], loD, hiD);\\\\n}\\\\n\\\\nbool withinRasterMask(mat4 d[4], sampler2D mask, float height) {\\\\n    bool result = true;\\\\n    int bitInByteStepper;\\\\n    float valY, valueY, scaleX;\\\\n    int hit, bitmask, valX;\\\\n    for(int i = 0; i < 4; i++) {\\\\n        for(int j = 0; j < 4; j++) {\\\\n            for(int k = 0; k < 4; k++) {\\\\n                bitInByteStepper = mod8(j * 4 + k);\\\\n                valX = i * 2 + j / 2;\\\\n                valY = d[i][j][k];\\\\n                valueY = valY * (height - 1.0) + 0.5;\\\\n                scaleX = (float(valX) + 0.5) / 8.0;\\\\n                hit = int(texture2D(mask, vec2(scaleX, (valueY + 0.5) / height))[3] * 255.0) / int(pow(2.0, float(bitInByteStepper)));\\\\n                result = result && mod2(hit) == 1;\\\\n            }\\\\n        }\\\\n    }\\\\n    return result;\\\\n}\\\\n\\\\nvec4 position(\\\\n        float depth,\\\\n        vec2 resolution, vec2 viewBoxPosition, vec2 viewBoxSize,\\\\n        mat4 dims[4],\\\\n        float signum,\\\\n        mat4 dim1A, mat4 dim2A, mat4 dim1B, mat4 dim2B, mat4 dim1C, mat4 dim2C, mat4 dim1D, mat4 dim2D,\\\\n        mat4 loA, mat4 hiA, mat4 loB, mat4 hiB, mat4 loC, mat4 hiC, mat4 loD, mat4 hiD,\\\\n        sampler2D mask, float maskHeight\\\\n    ) {\\\\n\\\\n    float x = 0.5 * signum + 0.5;\\\\n    float y = axisY(x, dims, dim1A, dim2A, dim1B, dim2B, dim1C, dim2C, dim1D, dim2D);\\\\n\\\\n    float show = float(\\\\n                            withinBoundingBox(dims, loA, hiA, loB, hiB, loC, hiC, loD, hiD)\\\\n                         && withinRasterMask(dims, mask, maskHeight)\\\\n                      );\\\\n\\\\n    vec2 viewBoxXY = viewBoxPosition + viewBoxSize * vec2(x, y);\\\\n    float depthOrHide = depth + 2.0 * (1.0 - show);\\\\n\\\\n    return vec4(\\\\n        xyProjection * (2.0 * viewBoxXY / resolution - 1.0),\\\\n        depthOrHide,\\\\n        1.0\\\\n    );\\\\n}\\\\n\\\\nvoid main() {\\\\n\\\\n    float prominence = abs(pf[3]);\\\\n\\\\n    mat4 p[4];\\\\n    p[0] = mat4(p0, p1, p2, p3);\\\\n    p[1] = mat4(p4, p5, p6, p7);\\\\n    p[2] = mat4(p8, p9, pa, pb);\\\\n    p[3] = mat4(pc, pd, pe, abs(pf));\\\\n\\\\n    gl_Position = position(\\\\n        1.0 - prominence,\\\\n        resolution, viewBoxPosition, viewBoxSize,\\\\n        p,\\\\n        sign(pf[3]),\\\\n        dim1A, dim2A, dim1B, dim2B, dim1C, dim2C, dim1D, dim2D,\\\\n        loA, hiA, loB, hiB, loC, hiC, loD, hiD,\\\\n        mask, maskHeight\\\\n    );\\\\n\\\\n    fragColor = vec4(pf.rgb, 1.0);\\\\n}\\\\n\\\"]),s=n([\\\"precision lowp float;\\\\n#define GLSLIFY 1\\\\n\\\\nvarying vec4 fragColor;\\\\n\\\\nvoid main() {\\\\n    gl_FragColor = fragColor;\\\\n}\\\\n\\\"]),l=t(\\\"../../lib\\\"),c=1e-6,u=1e-7,f=2048,h=64,p=2,d=4,g=8,v=h/g,m=[119,119,119],y=new Uint8Array(4),x=new Uint8Array(4),b={shape:[256,1],format:\\\"rgba\\\",type:\\\"uint8\\\",mag:\\\"nearest\\\",min:\\\"nearest\\\"};function _(t,e,r,n,i){var a=t._gl;a.enable(a.SCISSOR_TEST),a.scissor(e,r,n,i),t.clear({color:[0,0,0,0],depth:1})}function w(t,e,r,n,i,a){var o=a.key;r.drawCompleted||(!function(t){t.read({x:0,y:0,width:1,height:1,data:y})}(t),r.drawCompleted=!0),function s(l){var c;c=Math.min(n,i-l*n),a.offset=p*l*n,a.count=p*c,0===l&&(window.cancelAnimationFrame(r.currentRafs[o]),delete r.currentRafs[o],_(t,a.scissorX,a.scissorY,a.scissorWidth,a.viewBoxSize[1])),r.clearOnly||(e(a),l*n+c<i&&(r.currentRafs[o]=window.requestAnimationFrame(function(){s(l+1)})),r.drawCompleted=!1)}(0)}function k(t,e){return(t>>>8*e)%256/255}function T(t,e,r){var n,i,a,o=[];for(i=0;i<t;i++)for(a=0;a<p;a++)for(n=0;n<d;n++)o.push(e[i*h+r*d+n]),r*d+n===h-1&&a%2==0&&(o[o.length-1]*=-1);return o}e.exports=function(t,e){var r,n,p,d,y,A=e.context,M=e.pick,S=e.regl,E={currentRafs:{},drawCompleted:!0,clearOnly:!1},C=function(t){for(var e={},r=0;r<16;r++)e[\\\"p\\\"+r.toString(16)]=t.buffer({usage:\\\"dynamic\\\",type:\\\"float\\\",data:new Uint8Array(0)});return e}(S),L=S.texture(b);O(e);var z=S({profile:!1,blend:{enable:A,func:{srcRGB:\\\"src alpha\\\",dstRGB:\\\"one minus src alpha\\\",srcAlpha:1,dstAlpha:1},equation:{rgb:\\\"add\\\",alpha:\\\"add\\\"},color:[0,0,0,0]},depth:{enable:!A,mask:!0,func:\\\"less\\\",range:[0,1]},cull:{enable:!0,face:\\\"back\\\"},scissor:{enable:!0,box:{x:S.prop(\\\"scissorX\\\"),y:S.prop(\\\"scissorY\\\"),width:S.prop(\\\"scissorWidth\\\"),height:S.prop(\\\"scissorHeight\\\")}},viewport:{x:S.prop(\\\"viewportX\\\"),y:S.prop(\\\"viewportY\\\"),width:S.prop(\\\"viewportWidth\\\"),height:S.prop(\\\"viewportHeight\\\")},dither:!1,vert:M?o:A?a:i,frag:s,primitive:\\\"lines\\\",lineWidth:1,attributes:C,uniforms:{resolution:S.prop(\\\"resolution\\\"),viewBoxPosition:S.prop(\\\"viewBoxPosition\\\"),viewBoxSize:S.prop(\\\"viewBoxSize\\\"),dim1A:S.prop(\\\"dim1A\\\"),dim2A:S.prop(\\\"dim2A\\\"),dim1B:S.prop(\\\"dim1B\\\"),dim2B:S.prop(\\\"dim2B\\\"),dim1C:S.prop(\\\"dim1C\\\"),dim2C:S.prop(\\\"dim2C\\\"),dim1D:S.prop(\\\"dim1D\\\"),dim2D:S.prop(\\\"dim2D\\\"),loA:S.prop(\\\"loA\\\"),hiA:S.prop(\\\"hiA\\\"),loB:S.prop(\\\"loB\\\"),hiB:S.prop(\\\"hiB\\\"),loC:S.prop(\\\"loC\\\"),hiC:S.prop(\\\"hiC\\\"),loD:S.prop(\\\"loD\\\"),hiD:S.prop(\\\"hiD\\\"),palette:L,mask:S.prop(\\\"maskTexture\\\"),maskHeight:S.prop(\\\"maskHeight\\\"),colorClamp:S.prop(\\\"colorClamp\\\")},offset:S.prop(\\\"offset\\\"),count:S.prop(\\\"count\\\")});function O(t){r=t.model,n=t.viewModel,p=n.dimensions.slice(),d=p[0]?p[0].values.length:0;var e=r.lines,i=M?e.color.map(function(t,r){return r/e.color.length}):e.color,a=Math.max(1/255,Math.pow(1/i.length,1/3)),o=function(t,e,r){for(var n,i=e.length,a=[],o=0;o<t;o++)for(var s=0;s<h;s++)a.push(s<i?e[s].paddedUnitValues[o]:s===h-1?(n=r[o],Math.max(c,Math.min(1-c,n))):s>=h-4?k(o,h-2-s):.5);return a}(d,p,i);!function(t,e,r){for(var n=0;n<16;n++)t[\\\"p\\\"+n.toString(16)](T(e,r,n))}(C,d,o),L=S.texture(l.extendFlat({data:function(t,e,r){for(var n=[],i=0;i<256;i++){var a=t(i/255);n.push((e?m:a).concat(r))}return n}(r.unitToColor,A,Math.round(255*(A?a:1)))},b))}var I=[0,1];var D=[];function P(t,e,n,i,a,o,s,c,u,f,h){var p,d,g,v,m=[t,e],y=[0,1].map(function(){return[0,1,2,3].map(function(){return new Float32Array(16)})});for(p=0;p<2;p++)for(v=m[p],d=0;d<4;d++)for(g=0;g<16;g++)y[p][d][g]=g+16*d===v?1:0;var x=r.lines.canvasOverdrag,b=r.domain,_=r.canvasWidth,w=r.canvasHeight;return l.extendFlat({key:s,resolution:[_,w],viewBoxPosition:[n+x,i],viewBoxSize:[a,o],i:t,ii:e,dim1A:y[0][0],dim1B:y[0][1],dim1C:y[0][2],dim1D:y[0][3],dim2A:y[1][0],dim2B:y[1][1],dim2C:y[1][2],dim2D:y[1][3],colorClamp:I,scissorX:(c===u?0:n+x)+(r.pad.l-x)+r.layoutWidth*b.x[0],scissorWidth:(c===f?_-n+x:a+.5)+(c===u?n+x:0),scissorY:i+r.pad.b+r.layoutHeight*b.y[0],scissorHeight:o,viewportX:r.pad.l-x+r.layoutWidth*b.x[0],viewportY:r.pad.b+r.layoutHeight*b.y[0],viewportWidth:_,viewportHeight:w},h)}return{setColorDomain:function(t){I[0]=t[0],I[1]=t[1]},render:function(t,e,n){var i,a,o,s=t.length,l=1/0,c=-1/0;for(i=0;i<s;i++)t[i].dim2.canvasX>c&&(c=t[i].dim2.canvasX,o=i),t[i].dim1.canvasX<l&&(l=t[i].dim1.canvasX,a=i);0===s&&_(S,0,0,r.canvasWidth,r.canvasHeight);var h=A?{}:function(){var t,e,r,n=[0,1].map(function(){return[0,1,2,3].map(function(){return new Float32Array(16)})});for(t=0;t<2;t++)for(e=0;e<4;e++)for(r=0;r<16;r++){var i,a=r+16*e;i=a<p.length?p[a].brush.filter.getBounds()[t]:t,n[t][e][r]=i+(2*t-1)*u}function o(t,e){var r=f-1;return[Math.max(0,Math.floor(e[0]*r)),Math.min(r,Math.ceil(e[1]*r))]}for(var s=Array.apply(null,new Array(f*v)).map(function(){return 255}),l=0;l<p.length;l++){var c=l%g,h=(l-c)/g,d=Math.pow(2,c),m=p[l],x=m.brush.filter.get();if(!(x.length<2))for(var b=o(0,x[0])[1],_=1;_<x.length;_++){for(var w=o(0,x[_]),k=b+1;k<w[0];k++)s[k*v+h]&=~d;b=Math.max(b,w[1])}}var T={shape:[v,f],format:\\\"alpha\\\",type:\\\"uint8\\\",mag:\\\"nearest\\\",min:\\\"nearest\\\",data:s};return y?y(T):y=S.texture(T),{maskTexture:y,maskHeight:f,loA:n[0][0],loB:n[0][1],loC:n[0][2],loD:n[0][3],hiA:n[1][0],hiB:n[1][1],hiC:n[1][2],hiD:n[1][3]}}();for(i=0;i<s;i++){var m=t[i],x=m.dim1,b=x.crossfilterDimensionIndex,k=m.canvasX,T=m.canvasY,M=m.dim2.crossfilterDimensionIndex,C=m.panelSizeX,L=m.panelSizeY,O=k+C;if(e||!D[b]||D[b][0]!==k||D[b][1]!==O){D[b]=[k,O];var I=P(b,M,k,T,C,L,x.crossfilterDimensionIndex,i,a,o,h);E.clearOnly=n,w(S,z,E,e?r.lines.blockLineCount:d,d,I)}}},readPixel:function(t,e){return S.read({x:t,y:e,width:1,height:1,data:x}),x},readPixels:function(t,e,r,n){var i=new Uint8Array(4*r*n);return S.read({x:t,y:e,width:r,height:n,data:i}),i},destroy:function(){for(var e in t.style[\\\"pointer-events\\\"]=\\\"none\\\",L.destroy(),y&&y.destroy(),C)C[e].destroy()},update:O}}},{\\\"../../lib\\\":703,glslify:404}],1046:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,n){var i,a;for(n||(n=1/0),i=0;i<e.length;i++)(a=e[i]).visible&&(n=Math.min(n,a[r].length));for(n===1/0&&(n=0),t._length=n,i=0;i<e.length;i++)(a=e[i]).visible&&(a._length=n);return n}},{}],1047:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"color-rgba\\\"),a=t(\\\"../../lib\\\"),o=t(\\\"../../components/drawing\\\"),s=t(\\\"../../components/colorscale\\\"),l=t(\\\"../../lib/gup\\\"),c=l.keyFun,u=l.repeat,f=l.unwrap,h=t(\\\"./constants\\\"),p=t(\\\"./axisbrush\\\"),d=t(\\\"./lines\\\");function g(t){return!(\\\"visible\\\"in t)||t.visible}function v(t){var e=t.range?t.range[0]:a.aggNums(Math.min,null,t.values,t._length),r=t.range?t.range[1]:a.aggNums(Math.max,null,t.values,t._length);return!isNaN(e)&&isFinite(e)||(e=0),!isNaN(r)&&isFinite(r)||(r=0),e===r&&(0===e?(e-=1,r+=1):(e*=.9,r*=1.1)),[e,r]}function m(t){return t.dimensions.some(function(t){return t.brush.filterSpecified})}function y(t,e,r){var o=f(e),l=o.trace,c=o.lineColor,u=l.line,p=s.extractOpts(u),d=p.reversescale?s.flipScale(o.cscale):o.cscale,m=l.domain,y=l.dimensions,x=t.width,b=l.labelfont,_=l.tickfont,w=l.rangefont,k=a.extendDeepNoArrays({},u,{color:c.map(n.scale.linear().domain(v({values:c,range:[p.min,p.max],_length:l._length}))),blockLineCount:h.blockLineCount,canvasOverdrag:h.overdrag*h.canvasPixelRatio}),T=Math.floor(x*(m.x[1]-m.x[0])),A=Math.floor(t.height*(m.y[1]-m.y[0])),M=t.margin||{l:80,r:80,t:100,b:80},S=T,E=A;return{key:r,colCount:y.filter(g).length,dimensions:y,tickDistance:h.tickDistance,unitToColor:function(t){var e=t.map(function(t){return t[0]}),r=t.map(function(t){var e=i(t[1]);return n.rgb(\\\"rgb(\\\"+e[0]+\\\",\\\"+e[1]+\\\",\\\"+e[2]+\\\")\\\")}),a=\\\"rgb\\\".split(\\\"\\\").map(function(t){return n.scale.linear().clamp(!0).domain(e).range(r.map((i=t,function(t){return t[i]})));var i});return function(t){return a.map(function(e){return e(t)})}}(d),lines:k,labelFont:b,tickFont:_,rangeFont:w,layoutWidth:x,layoutHeight:t.height,domain:m,translateX:m.x[0]*x,translateY:t.height-m.y[1]*t.height,pad:M,canvasWidth:S*h.canvasPixelRatio+2*k.canvasOverdrag,canvasHeight:E*h.canvasPixelRatio,width:S,height:E,canvasPixelRatio:h.canvasPixelRatio}}function x(t,e,r){var i=r.width,o=r.height,s=r.dimensions,l=r.canvasPixelRatio,c=function(t){return i*t/Math.max(1,r.colCount-1)},u=h.verticalPadding/o,f=function(t,e){return n.scale.linear().range([e,t-e])}(o,h.verticalPadding),d={key:r.key,xScale:c,model:r,inBrushDrag:!1},y={};return d.dimensions=s.filter(g).map(function(i,s){var g=function(t,e){return n.scale.linear().domain(v(t)).range([e,1-e])}(i,u),x=y[i.label];y[i.label]=(x||0)+1;var b=i.label+(x?\\\"__\\\"+x:\\\"\\\"),_=i.constraintrange,w=_&&_.length;w&&!Array.isArray(_[0])&&(_=[_]);var k=w?_.map(function(t){return t.map(g)}):[[0,1]],T=i.values;T.length>i._length&&(T=T.slice(0,i._length));var A,M=i.tickvals;function S(t,e){return{val:t,text:A[e]}}function E(t,e){return t.val-e.val}if(Array.isArray(M)&&M.length){A=i.ticktext,Array.isArray(A)&&A.length?A.length>M.length?A=A.slice(0,M.length):M.length>A.length&&(M=M.slice(0,A.length)):A=M.map(n.format(i.tickformat));for(var C=1;C<M.length;C++)if(M[C]<M[C-1]){for(var L=M.map(S).sort(E),z=0;z<M.length;z++)M[z]=L[z].val,A[z]=L[z].text;break}}else M=void 0;return{key:b,label:i.label,tickFormat:i.tickformat,tickvals:M,ticktext:A,ordinal:!!M,multiselect:i.multiselect,xIndex:s,crossfilterDimensionIndex:s,visibleIndex:i._index,height:o,values:T,paddedUnitValues:T.map(g),unitTickvals:M&&M.map(g),xScale:c,x:c(s),canvasX:c(s)*l,unitToPaddedPx:f,domainScale:function(t,e,r,i,a){var o,s,l=v(r);return i?n.scale.ordinal().domain(i.map((o=n.format(r.tickformat),s=a,s?function(t,e){var r=s[e];return null==r?o(t):r}:o))).range(i.map(function(r){var n=(r-l[0])/(l[1]-l[0]);return t-e+n*(2*e-t)})):n.scale.linear().domain(l).range([t-e,e])}(o,h.verticalPadding,i,M,A),ordinalScale:function(t){if(t.tickvals){var e=v(t);return n.scale.ordinal().domain(t.tickvals).range(t.tickvals.map(function(t){return(t-e[0])/(e[1]-e[0])}))}}(i),parent:d,model:r,brush:p.makeBrush(t,w,k,function(){t.linePickActive(!1)},function(){var e=d;e.focusLayer&&e.focusLayer.render(e.panels,!0);var r=m(e);!t.contextShown()&&r?(e.contextLayer&&e.contextLayer.render(e.panels,!0),t.contextShown(!0)):t.contextShown()&&!r&&(e.contextLayer&&e.contextLayer.render(e.panels,!0,!0),t.contextShown(!1))},function(r){var n=d;if(n.focusLayer.render(n.panels,!0),n.pickLayer&&n.pickLayer.render(n.panels,!0),t.linePickActive(!0),e&&e.filterChanged){var o=g.invert,s=r.map(function(t){return t.map(o).sort(a.sorterAsc)}).sort(function(t,e){return t[0]-e[0]});e.filterChanged(n.key,i._index,s)}})}}),d}function b(t){t.classed(h.cn.axisExtentText,!0).attr(\\\"text-anchor\\\",\\\"middle\\\").style(\\\"cursor\\\",\\\"default\\\").style(\\\"user-select\\\",\\\"none\\\")}e.exports=function(t,e,r,i,s,l){var g,v,_=(g=!0,v=!1,{linePickActive:function(t){return arguments.length?g=!!t:g},contextShown:function(t){return arguments.length?v=!!t:v}}),w=i.filter(function(t){return f(t).trace.visible}).map(y.bind(0,s)).map(x.bind(0,_,l));r.each(function(t,e){return a.extendFlat(t,w[e])});var k=r.selectAll(\\\".gl-canvas\\\").each(function(t){t.viewModel=w[0],t.model=t.viewModel?t.viewModel.model:null}),T=null;k.filter(function(t){return t.pick}).style(\\\"pointer-events\\\",\\\"auto\\\").on(\\\"mousemove\\\",function(t){if(_.linePickActive()&&t.lineLayer&&l&&l.hover){var e=n.event,r=this.width,i=this.height,a=n.mouse(this),o=a[0],s=a[1];if(o<0||s<0||o>=r||s>=i)return;var c=t.lineLayer.readPixel(o,i-1-s),u=0!==c[3],f=u?c[2]+256*(c[1]+256*c[0]):null,h={x:o,y:s,clientX:e.clientX,clientY:e.clientY,dataIndex:t.model.key,curveNumber:f};f!==T&&(u?l.hover(h):l.unhover&&l.unhover(h),T=f)}}),k.style(\\\"opacity\\\",function(t){return t.pick?.01:1}),e.style(\\\"background\\\",\\\"rgba(255, 255, 255, 0)\\\");var A=e.selectAll(\\\".\\\"+h.cn.parcoords).data(w,c);A.exit().remove(),A.enter().append(\\\"g\\\").classed(h.cn.parcoords,!0).style(\\\"shape-rendering\\\",\\\"crispEdges\\\").style(\\\"pointer-events\\\",\\\"none\\\"),A.attr(\\\"transform\\\",function(t){return\\\"translate(\\\"+t.model.translateX+\\\",\\\"+t.model.translateY+\\\")\\\"});var M=A.selectAll(\\\".\\\"+h.cn.parcoordsControlView).data(u,c);M.enter().append(\\\"g\\\").classed(h.cn.parcoordsControlView,!0),M.attr(\\\"transform\\\",function(t){return\\\"translate(\\\"+t.model.pad.l+\\\",\\\"+t.model.pad.t+\\\")\\\"});var S=M.selectAll(\\\".\\\"+h.cn.yAxis).data(function(t){return t.dimensions},c);function E(t,e){for(var r=e.panels||(e.panels=[]),n=t.data(),i=n.length-1,a=0;a<i;a++){var o=r[a]||(r[a]={}),s=n[a],l=n[a+1];o.dim1=s,o.dim2=l,o.canvasX=s.canvasX,o.panelSizeX=l.canvasX-s.canvasX,o.panelSizeY=e.model.canvasHeight,o.y=0,o.canvasY=0}}S.enter().append(\\\"g\\\").classed(h.cn.yAxis,!0),M.each(function(t){E(S,t)}),k.each(function(t){if(t.viewModel){!t.lineLayer||l?t.lineLayer=d(this,t):t.lineLayer.update(t),(t.key||0===t.key)&&(t.viewModel[t.key]=t.lineLayer);var e=!t.context||l;t.lineLayer.render(t.viewModel.panels,e)}}),S.attr(\\\"transform\\\",function(t){return\\\"translate(\\\"+t.xScale(t.xIndex)+\\\", 0)\\\"}),S.call(n.behavior.drag().origin(function(t){return t}).on(\\\"drag\\\",function(t){var e=t.parent;_.linePickActive(!1),t.x=Math.max(-h.overdrag,Math.min(t.model.width+h.overdrag,n.event.x)),t.canvasX=t.x*t.model.canvasPixelRatio,S.sort(function(t,e){return t.x-e.x}).each(function(e,r){e.xIndex=r,e.x=t===e?e.x:e.xScale(e.xIndex),e.canvasX=e.x*e.model.canvasPixelRatio}),E(S,e),S.filter(function(e){return 0!==Math.abs(t.xIndex-e.xIndex)}).attr(\\\"transform\\\",function(t){return\\\"translate(\\\"+t.xScale(t.xIndex)+\\\", 0)\\\"}),n.select(this).attr(\\\"transform\\\",\\\"translate(\\\"+t.x+\\\", 0)\\\"),S.each(function(r,n,i){i===t.parent.key&&(e.dimensions[n]=r)}),e.contextLayer&&e.contextLayer.render(e.panels,!1,!m(e)),e.focusLayer.render&&e.focusLayer.render(e.panels)}).on(\\\"dragend\\\",function(t){var e=t.parent;t.x=t.xScale(t.xIndex),t.canvasX=t.x*t.model.canvasPixelRatio,E(S,e),n.select(this).attr(\\\"transform\\\",function(t){return\\\"translate(\\\"+t.x+\\\", 0)\\\"}),e.contextLayer&&e.contextLayer.render(e.panels,!1,!m(e)),e.focusLayer&&e.focusLayer.render(e.panels),e.pickLayer&&e.pickLayer.render(e.panels,!0),_.linePickActive(!0),l&&l.axesMoved&&l.axesMoved(e.key,e.dimensions.map(function(t){return t.crossfilterDimensionIndex}))})),S.exit().remove();var C=S.selectAll(\\\".\\\"+h.cn.axisOverlays).data(u,c);C.enter().append(\\\"g\\\").classed(h.cn.axisOverlays,!0),C.selectAll(\\\".\\\"+h.cn.axis).remove();var L=C.selectAll(\\\".\\\"+h.cn.axis).data(u,c);L.enter().append(\\\"g\\\").classed(h.cn.axis,!0),L.each(function(t){var e=t.model.height/t.model.tickDistance,r=t.domainScale,i=r.domain();n.select(this).call(n.svg.axis().orient(\\\"left\\\").tickSize(4).outerTickSize(2).ticks(e,t.tickFormat).tickValues(t.ordinal?i:null).tickFormat(t.ordinal?function(t){return t}:null).scale(r)),o.font(L.selectAll(\\\"text\\\"),t.model.tickFont)}),L.selectAll(\\\".domain, .tick>line\\\").attr(\\\"fill\\\",\\\"none\\\").attr(\\\"stroke\\\",\\\"black\\\").attr(\\\"stroke-opacity\\\",.25).attr(\\\"stroke-width\\\",\\\"1px\\\"),L.selectAll(\\\"text\\\").style(\\\"text-shadow\\\",\\\"1px 1px 1px #fff, -1px -1px 1px #fff, 1px -1px 1px #fff, -1px 1px 1px #fff\\\").style(\\\"cursor\\\",\\\"default\\\").style(\\\"user-select\\\",\\\"none\\\");var z=C.selectAll(\\\".\\\"+h.cn.axisHeading).data(u,c);z.enter().append(\\\"g\\\").classed(h.cn.axisHeading,!0);var O=z.selectAll(\\\".\\\"+h.cn.axisTitle).data(u,c);O.enter().append(\\\"text\\\").classed(h.cn.axisTitle,!0).attr(\\\"text-anchor\\\",\\\"middle\\\").style(\\\"cursor\\\",\\\"ew-resize\\\").style(\\\"user-select\\\",\\\"none\\\").style(\\\"pointer-events\\\",\\\"auto\\\"),O.attr(\\\"transform\\\",\\\"translate(0,\\\"+-h.axisTitleOffset+\\\")\\\").text(function(t){return t.label}).each(function(t){o.font(n.select(this),t.model.labelFont)});var I=C.selectAll(\\\".\\\"+h.cn.axisExtent).data(u,c);I.enter().append(\\\"g\\\").classed(h.cn.axisExtent,!0);var D=I.selectAll(\\\".\\\"+h.cn.axisExtentTop).data(u,c);D.enter().append(\\\"g\\\").classed(h.cn.axisExtentTop,!0),D.attr(\\\"transform\\\",\\\"translate(0,\\\"+-h.axisExtentOffset+\\\")\\\");var P=D.selectAll(\\\".\\\"+h.cn.axisExtentTopText).data(u,c);function R(t,e){if(t.ordinal)return\\\"\\\";var r=t.domainScale.domain();return n.format(t.tickFormat)(r[e?r.length-1:0])}P.enter().append(\\\"text\\\").classed(h.cn.axisExtentTopText,!0).call(b),P.text(function(t){return R(t,!0)}).each(function(t){o.font(n.select(this),t.model.rangeFont)});var F=I.selectAll(\\\".\\\"+h.cn.axisExtentBottom).data(u,c);F.enter().append(\\\"g\\\").classed(h.cn.axisExtentBottom,!0),F.attr(\\\"transform\\\",function(t){return\\\"translate(0,\\\"+(t.model.height+h.axisExtentOffset)+\\\")\\\"});var B=F.selectAll(\\\".\\\"+h.cn.axisExtentBottomText).data(u,c);B.enter().append(\\\"text\\\").classed(h.cn.axisExtentBottomText,!0).attr(\\\"dy\\\",\\\"0.75em\\\").call(b),B.text(function(t){return R(t)}).each(function(t){o.font(n.select(this),t.model.rangeFont)}),p.ensureAxisBrush(C)}},{\\\"../../components/colorscale\\\":592,\\\"../../components/drawing\\\":601,\\\"../../lib\\\":703,\\\"../../lib/gup\\\":701,\\\"./axisbrush\\\":1039,\\\"./constants\\\":1042,\\\"./lines\\\":1045,\\\"color-rgba\\\":115,d3:157}],1048:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./parcoords\\\"),i=t(\\\"../../lib/prepare_regl\\\");e.exports=function(t,e){var r=t._fullLayout,a=r._toppaper,o=r._paperdiv,s=r._glcontainer;if(i(t)){var l={},c={},u={},f={},h=r._size;e.forEach(function(e,r){var n=e[0].trace;u[r]=n.index;var i=f[r]=n._fullInput.index;l[r]=t.data[i].dimensions,c[r]=t.data[i].dimensions.slice()});n(o,a,s,e,{width:h.w,height:h.h,margin:{t:h.t,r:h.r,b:h.b,l:h.l}},{filterChanged:function(e,n,i){var a=c[e][n],o=i.map(function(t){return t.slice()}),s=\\\"dimensions[\\\"+n+\\\"].constraintrange\\\",l=r._tracePreGUI[t._fullData[u[e]]._fullInput.uid];if(void 0===l[s]){var h=a.constraintrange;l[s]=h||null}var p=t._fullData[u[e]].dimensions[n];o.length?(1===o.length&&(o=o[0]),a.constraintrange=o,p.constraintrange=o.slice(),o=[o]):(delete a.constraintrange,delete p.constraintrange,o=null);var d={};d[s]=o,t.emit(\\\"plotly_restyle\\\",[d,[f[e]]])},hover:function(e){t.emit(\\\"plotly_hover\\\",e)},unhover:function(e){t.emit(\\\"plotly_unhover\\\",e)},axesMoved:function(e,r){function n(t){return!(\\\"visible\\\"in t)||t.visible}function i(t,e,r){var n=e.indexOf(r),i=t.indexOf(n);return-1===i&&(i+=e.length),i}var a=function(t){return function(e,n){return i(r,t,e)-i(r,t,n)}}(c[e].filter(n));l[e].sort(a),c[e].filter(function(t){return!n(t)}).sort(function(t){return c[e].indexOf(t)}).forEach(function(t){l[e].splice(l[e].indexOf(t),1),l[e].splice(c[e].indexOf(t),0,t)}),t.emit(\\\"plotly_restyle\\\",[{dimensions:[l[e]]},[f[e]]])}})}}},{\\\"../../lib/prepare_regl\\\":716,\\\"./parcoords\\\":1047}],1049:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/attributes\\\"),i=t(\\\"../../plots/domain\\\").attributes,a=t(\\\"../../plots/font_attributes\\\"),o=t(\\\"../../components/color/attributes\\\"),s=t(\\\"../../components/fx/hovertemplate_attributes\\\"),l=t(\\\"../../lib/extend\\\").extendFlat,c=a({editType:\\\"plot\\\",arrayOk:!0,colorEditType:\\\"plot\\\"});e.exports={labels:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},label0:{valType:\\\"number\\\",dflt:0,editType:\\\"calc\\\"},dlabel:{valType:\\\"number\\\",dflt:1,editType:\\\"calc\\\"},values:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},marker:{colors:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},line:{color:{valType:\\\"color\\\",dflt:o.defaultLine,arrayOk:!0,editType:\\\"style\\\"},width:{valType:\\\"number\\\",min:0,dflt:0,arrayOk:!0,editType:\\\"style\\\"},editType:\\\"calc\\\"},editType:\\\"calc\\\"},text:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},hovertext:{valType:\\\"string\\\",dflt:\\\"\\\",arrayOk:!0,editType:\\\"style\\\"},scalegroup:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"calc\\\"},textinfo:{valType:\\\"flaglist\\\",flags:[\\\"label\\\",\\\"text\\\",\\\"value\\\",\\\"percent\\\"],extras:[\\\"none\\\"],editType:\\\"calc\\\"},hoverinfo:l({},n.hoverinfo,{flags:[\\\"label\\\",\\\"text\\\",\\\"value\\\",\\\"percent\\\",\\\"name\\\"]}),hovertemplate:s({},{keys:[\\\"label\\\",\\\"color\\\",\\\"value\\\",\\\"percent\\\",\\\"text\\\"]}),textposition:{valType:\\\"enumerated\\\",values:[\\\"inside\\\",\\\"outside\\\",\\\"auto\\\",\\\"none\\\"],dflt:\\\"auto\\\",arrayOk:!0,editType:\\\"plot\\\"},textfont:l({},c,{}),insidetextfont:l({},c,{}),outsidetextfont:l({},c,{}),title:{text:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"plot\\\"},font:l({},c,{}),position:{valType:\\\"enumerated\\\",values:[\\\"top left\\\",\\\"top center\\\",\\\"top right\\\",\\\"middle center\\\",\\\"bottom left\\\",\\\"bottom center\\\",\\\"bottom right\\\"],editType:\\\"plot\\\"},editType:\\\"plot\\\"},domain:i({name:\\\"pie\\\",trace:!0,editType:\\\"calc\\\"}),hole:{valType:\\\"number\\\",min:0,max:1,dflt:0,editType:\\\"calc\\\"},sort:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"},direction:{valType:\\\"enumerated\\\",values:[\\\"clockwise\\\",\\\"counterclockwise\\\"],dflt:\\\"counterclockwise\\\",editType:\\\"calc\\\"},rotation:{valType:\\\"number\\\",min:-360,max:360,dflt:0,editType:\\\"calc\\\"},pull:{valType:\\\"number\\\",min:0,max:1,dflt:0,arrayOk:!0,editType:\\\"calc\\\"},_deprecated:{title:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"calc\\\"},titlefont:l({},c,{}),titleposition:{valType:\\\"enumerated\\\",values:[\\\"top left\\\",\\\"top center\\\",\\\"top right\\\",\\\"middle center\\\",\\\"bottom left\\\",\\\"bottom center\\\",\\\"bottom right\\\"],editType:\\\"calc\\\"}}}},{\\\"../../components/color/attributes\\\":579,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plots/attributes\\\":748,\\\"../../plots/domain\\\":776,\\\"../../plots/font_attributes\\\":777}],1050:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../plots/get_data\\\").getModuleCalcData;r.name=\\\"pie\\\",r.plot=function(t){var e=n.getModule(\\\"pie\\\"),r=i(t.calcdata,e)[0];e.plot(t,r)},r.clean=function(t,e,r,n){var i=n._has&&n._has(\\\"pie\\\"),a=e._has&&e._has(\\\"pie\\\");i&&!a&&n._pielayer.selectAll(\\\"g.trace\\\").remove()}},{\\\"../../plots/get_data\\\":786,\\\"../../registry\\\":831}],1051:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../lib\\\").isArrayOrTypedArray,a=t(\\\"tinycolor2\\\"),o=t(\\\"../../components/color\\\"),s=t(\\\"./helpers\\\"),l=t(\\\"../../lib\\\").isValidTextValue,c={};function u(t){return function(e,r){return!!e&&(!!(e=a(e)).isValid()&&(e=o.addOpacity(e,e.getAlpha()),t[r]||(t[r]=e),e))}}function f(t,e){var r,n=JSON.stringify(t),i=e[n];if(!i){for(i=t.slice(),r=0;r<t.length;r++)i.push(a(t[r]).lighten(20).toHexString());for(r=0;r<t.length;r++)i.push(a(t[r]).darken(20).toHexString());e[n]=i}return i}e.exports={calc:function(t,e){var r,a,o=[],c=t._fullLayout,f=c.hiddenlabels||[],h=e.labels,p=e.marker.colors||[],d=e.values,g=i(d)&&d.length;if(e.dlabel)for(h=new Array(d.length),r=0;r<d.length;r++)h[r]=String(e.label0+r*e.dlabel);var v={},m=u(c[\\\"_\\\"+e.type+\\\"colormap\\\"]),y=(g?d:h).length,x=0,b=!1;for(r=0;r<y;r++){var _,w,k;if(g){if(_=d[r],!n(_))continue;if((_=+_)<0)continue}else _=1;void 0!==(w=h[r])&&\\\"\\\"!==w||(w=r);var T=v[w=String(w)];void 0===T?(v[w]=o.length,(k=-1!==f.indexOf(w))||(x+=_),o.push({v:_,label:w,color:m(p[r],w),i:r,pts:[r],hidden:k})):(b=!0,(a=o[T]).v+=_,a.pts.push(r),a.hidden||(x+=_),!1===a.color&&p[r]&&(a.color=m(p[r],w)))}(\\\"funnelarea\\\"===e.type?b:e.sort)&&o.sort(function(t,e){return e.v-t.v}),o[0]&&(o[0].vTotal=x);var A=e.textinfo;if(A&&\\\"none\\\"!==A){var M,S=A.split(\\\"+\\\"),E=function(t){return-1!==S.indexOf(t)},C=E(\\\"label\\\"),L=E(\\\"text\\\"),z=E(\\\"value\\\"),O=E(\\\"percent\\\"),I=c.separators;for(r=0;r<o.length;r++){if(a=o[r],M=C?[a.label]:[],L){var D=s.getFirstFilled(e.text,a.pts);l(D)&&M.push(D)}z&&M.push(s.formatPieValue(a.v,I)),O&&M.push(s.formatPiePercent(a.v/x,I)),a.text=M.join(\\\"<br>\\\")}}return o},crossTraceCalc:function(t,e){var r=(e||{}).type;r||(r=\\\"pie\\\");var n=t._fullLayout,i=t.calcdata,a=n[r+\\\"colorway\\\"],o=n[\\\"_\\\"+r+\\\"colormap\\\"];n[\\\"extend\\\"+r+\\\"colors\\\"]&&(a=f(a,c));for(var s=0,l=0;l<i.length;l++){var u=i[l];if(u[0].trace.type===r)for(var h=0;h<u.length;h++){var p=u[h];!1===p.color&&(o[p.label]?p.color=o[p.label]:(o[p.label]=p.color=a[s%a.length],s++))}}},makePullColorFn:u,generateExtendedColors:f}},{\\\"../../components/color\\\":580,\\\"../../lib\\\":703,\\\"./helpers\\\":1054,\\\"fast-isnumeric\\\":224,tinycolor2:524}],1052:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./attributes\\\"),a=t(\\\"../../plots/domain\\\").defaults,o=t(\\\"../bar/defaults\\\").handleText;e.exports=function(t,e,r,s){function l(r,a){return n.coerce(t,e,i,r,a)}var c,u=l(\\\"values\\\"),f=n.isArrayOrTypedArray(u),h=l(\\\"labels\\\");if(Array.isArray(h)?(c=h.length,f&&(c=Math.min(c,u.length))):f&&(c=u.length,l(\\\"label0\\\"),l(\\\"dlabel\\\")),c){e._length=c,l(\\\"marker.line.width\\\")&&l(\\\"marker.line.color\\\"),l(\\\"marker.colors\\\"),l(\\\"scalegroup\\\");var p=l(\\\"text\\\"),d=l(\\\"textinfo\\\",Array.isArray(p)?\\\"text+percent\\\":\\\"percent\\\");if(l(\\\"hovertext\\\"),l(\\\"hovertemplate\\\"),d&&\\\"none\\\"!==d){var g=l(\\\"textposition\\\");o(t,e,s,l,g,{moduleHasSelected:!1,moduleHasUnselected:!1,moduleHasConstrain:!1,moduleHasCliponaxis:!1,moduleHasTextangle:!1,moduleHasInsideanchor:!1})}a(e,s,l);var v=l(\\\"hole\\\");if(l(\\\"title.text\\\")){var m=l(\\\"title.position\\\",v?\\\"middle center\\\":\\\"top center\\\");v||\\\"middle center\\\"!==m||(e.title.position=\\\"top center\\\"),n.coerceFont(l,\\\"title.font\\\",s.font)}l(\\\"sort\\\"),l(\\\"direction\\\"),l(\\\"rotation\\\"),l(\\\"pull\\\")}else e.visible=!1}},{\\\"../../lib\\\":703,\\\"../../plots/domain\\\":776,\\\"../bar/defaults\\\":845,\\\"./attributes\\\":1049}],1053:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/fx/helpers\\\").appendArrayMultiPointValues;e.exports=function(t,e){var r={curveNumber:e.index,pointNumbers:t.pts,data:e._input,fullData:e,label:t.label,color:t.color,value:t.v,percent:t.percent,text:t.text,v:t.v};return 1===t.pts.length&&(r.pointNumber=r.i=t.pts[0]),n(r,e,t.pts),\\\"funnelarea\\\"===e.type&&(delete r.v,delete r.i),r}},{\\\"../../components/fx/helpers\\\":615}],1054:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\");r.formatPiePercent=function(t,e){var r=(100*t).toPrecision(3);return-1!==r.lastIndexOf(\\\".\\\")&&(r=r.replace(/[.]?0+$/,\\\"\\\")),n.numSeparate(r,e)+\\\"%\\\"},r.formatPieValue=function(t,e){var r=t.toPrecision(10);return-1!==r.lastIndexOf(\\\".\\\")&&(r=r.replace(/[.]?0+$/,\\\"\\\")),n.numSeparate(r,e)},r.getFirstFilled=function(t,e){if(Array.isArray(t))for(var r=0;r<e.length;r++){var n=t[e[r]];if(n||0===n)return n}},r.castOption=function(t,e){return Array.isArray(t)?r.getFirstFilled(t,e):t||void 0}},{\\\"../../lib\\\":703}],1055:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),supplyLayoutDefaults:t(\\\"./layout_defaults\\\"),layoutAttributes:t(\\\"./layout_attributes\\\"),calc:t(\\\"./calc\\\").calc,crossTraceCalc:t(\\\"./calc\\\").crossTraceCalc,plot:t(\\\"./plot\\\").plot,style:t(\\\"./style\\\"),styleOne:t(\\\"./style_one\\\"),moduleType:\\\"trace\\\",name:\\\"pie\\\",basePlotModule:t(\\\"./base_plot\\\"),categories:[\\\"pie-like\\\",\\\"pie\\\",\\\"showLegend\\\"],meta:{}}},{\\\"./attributes\\\":1049,\\\"./base_plot\\\":1050,\\\"./calc\\\":1051,\\\"./defaults\\\":1052,\\\"./layout_attributes\\\":1056,\\\"./layout_defaults\\\":1057,\\\"./plot\\\":1058,\\\"./style\\\":1059,\\\"./style_one\\\":1060}],1056:[function(t,e,r){\\\"use strict\\\";e.exports={hiddenlabels:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},piecolorway:{valType:\\\"colorlist\\\",editType:\\\"calc\\\"},extendpiecolors:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"}}},{}],1057:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./layout_attributes\\\");e.exports=function(t,e){function r(r,a){return n.coerce(t,e,i,r,a)}r(\\\"hiddenlabels\\\"),r(\\\"piecolorway\\\",e.colorway),r(\\\"extendpiecolors\\\")}},{\\\"../../lib\\\":703,\\\"./layout_attributes\\\":1056}],1058:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../components/fx\\\"),a=t(\\\"../../components/color\\\"),o=t(\\\"../../components/drawing\\\"),s=t(\\\"../../lib\\\"),l=t(\\\"../../lib/svg_text_utils\\\"),c=t(\\\"./helpers\\\"),u=t(\\\"./event_data\\\");function f(t,e,r){var a=r[0],o=a.trace,l=a.cx,f=a.cy;\\\"_hasHoverLabel\\\"in o||(o._hasHoverLabel=!1),\\\"_hasHoverEvent\\\"in o||(o._hasHoverEvent=!1),t.on(\\\"mouseover\\\",function(t){var r=e._fullLayout,h=e._fullData[o.index];if(!e._dragging&&!1!==r.hovermode){var p=h.hoverinfo;if(Array.isArray(p)&&(p=i.castHoverinfo({hoverinfo:[c.castOption(p,t.pts)],_module:o._module},r,0)),\\\"all\\\"===p&&(p=\\\"label+text+value+percent+name\\\"),h.hovertemplate||\\\"none\\\"!==p&&\\\"skip\\\"!==p&&p){var d=t.rInscribed||0,g=l+t.pxmid[0]*(1-d),v=f+t.pxmid[1]*(1-d),m=r.separators,y=[];if(p&&-1!==p.indexOf(\\\"label\\\")&&y.push(t.label),t.text=c.castOption(h.hovertext||h.text,t.pts),p&&-1!==p.indexOf(\\\"text\\\")){var x=t.text;s.isValidTextValue(x)&&y.push(x)}t.value=t.v,t.valueLabel=c.formatPieValue(t.v,m),p&&-1!==p.indexOf(\\\"value\\\")&&y.push(t.valueLabel),t.percent=t.v/a.vTotal,t.percentLabel=c.formatPiePercent(t.percent,m),p&&-1!==p.indexOf(\\\"percent\\\")&&y.push(t.percentLabel);var b=h.hoverlabel,_=b.font;i.loneHover({trace:o,x0:g-d*a.r,x1:g+d*a.r,y:v,text:y.join(\\\"<br>\\\"),name:h.hovertemplate||-1!==p.indexOf(\\\"name\\\")?h.name:void 0,idealAlign:t.pxmid[0]<0?\\\"left\\\":\\\"right\\\",color:c.castOption(b.bgcolor,t.pts)||t.color,borderColor:c.castOption(b.bordercolor,t.pts),fontFamily:c.castOption(_.family,t.pts),fontSize:c.castOption(_.size,t.pts),fontColor:c.castOption(_.color,t.pts),nameLength:c.castOption(b.namelength,t.pts),textAlign:c.castOption(b.align,t.pts),hovertemplate:c.castOption(h.hovertemplate,t.pts),hovertemplateLabels:t,eventData:[u(t,h)]},{container:r._hoverlayer.node(),outerContainer:r._paper.node(),gd:e}),o._hasHoverLabel=!0}o._hasHoverEvent=!0,e.emit(\\\"plotly_hover\\\",{points:[u(t,h)],event:n.event})}}),t.on(\\\"mouseout\\\",function(t){var r=e._fullLayout,a=e._fullData[o.index],s=n.select(this).datum();o._hasHoverEvent&&(t.originalEvent=n.event,e.emit(\\\"plotly_unhover\\\",{points:[u(s,a)],event:n.event}),o._hasHoverEvent=!1),o._hasHoverLabel&&(i.loneUnhover(r._hoverlayer.node()),o._hasHoverLabel=!1)}),t.on(\\\"click\\\",function(t){var r=e._fullLayout,a=e._fullData[o.index];e._dragging||!1===r.hovermode||(e._hoverdata=[u(t,a)],i.click(e,n.event))})}function h(t,e,r){var n=c.castOption(t.insidetextfont.color,e.pts);!n&&t._input.textfont&&(n=c.castOption(t._input.textfont.color,e.pts));var i=c.castOption(t.insidetextfont.family,e.pts)||c.castOption(t.textfont.family,e.pts)||r.family,o=c.castOption(t.insidetextfont.size,e.pts)||c.castOption(t.textfont.size,e.pts)||r.size;return{color:n||a.contrast(e.color),family:i,size:o}}function p(t,e){for(var r,n,i=0;i<t.length;i++)if((n=(r=t[i][0]).trace).title.text){var a=n.title.text;n._meta&&(a=s.templateString(a,n._meta));var c=o.tester.append(\\\"text\\\").attr(\\\"data-notex\\\",1).text(a).call(o.font,n.title.font).call(l.convertToTspans,e),u=o.bBox(c.node(),!0);r.titleBox={width:u.width,height:u.height},c.remove()}}function d(t,e,r){var n=Math.sqrt(t.width*t.width+t.height*t.height),i=t.width/t.height,a=e.halfangle,o=e.ring,s=e.rInscribed,l=r.r||e.rpx1,c={scale:s*l*2/n,rCenter:1-s,rotate:0};if(c.scale>=1)return c;var u=i+1/(2*Math.tan(a)),f=l*Math.min(1/(Math.sqrt(u*u+.5)+u),o/(Math.sqrt(i*i+o/2)+i)),h={scale:2*f/t.height,rCenter:Math.cos(f/l)-f*i/l,rotate:(180/Math.PI*e.midangle+720)%180-90},p=1/i,d=p+1/(2*Math.tan(a)),g=l*Math.min(1/(Math.sqrt(d*d+.5)+d),o/(Math.sqrt(p*p+o/2)+p)),v={scale:2*g/t.width,rCenter:Math.cos(g/l)-g/i/l,rotate:(180/Math.PI*e.midangle+810)%180-90},m=v.scale>h.scale?v:h;return c.scale<1&&m.scale>c.scale?m:c}function g(t,e){return t.v!==e.vTotal||e.trace.hole?Math.min(1/(1+1/Math.sin(t.halfangle)),t.ring/2):1}function v(t,e){var r=e.pxmid[0],n=e.pxmid[1],i=t.width/2,a=t.height/2;return r<0&&(i*=-1),n<0&&(a*=-1),{scale:1,rCenter:1,rotate:0,x:i+Math.abs(a)*(i>0?1:-1)/2,y:a/(1+r*r/(n*n)),outside:!0}}function m(t,e){var r,n,i,a=t.trace,o={x:t.cx,y:t.cy},s={tx:0,ty:0};s.ty+=a.title.font.size,i=x(a),-1!==a.title.position.indexOf(\\\"top\\\")?(o.y-=(1+i)*t.r,s.ty-=t.titleBox.height):-1!==a.title.position.indexOf(\\\"bottom\\\")&&(o.y+=(1+i)*t.r);var l,c,u=(l=t.r,c=t.trace.aspectratio,l/(void 0===c?1:c)),f=e.w*(a.domain.x[1]-a.domain.x[0])/2;return-1!==a.title.position.indexOf(\\\"left\\\")?(f+=u,o.x-=(1+i)*u,s.tx+=t.titleBox.width/2):-1!==a.title.position.indexOf(\\\"center\\\")?f*=2:-1!==a.title.position.indexOf(\\\"right\\\")&&(f+=u,o.x+=(1+i)*u,s.tx-=t.titleBox.width/2),r=f/t.titleBox.width,n=y(t,e)/t.titleBox.height,{x:o.x,y:o.y,scale:Math.min(r,n),tx:s.tx,ty:s.ty}}function y(t,e){var r=t.trace,n=e.h*(r.domain.y[1]-r.domain.y[0]);return Math.min(t.titleBox.height,n/2)}function x(t){var e,r=t.pull;if(!r)return 0;if(Array.isArray(r))for(r=0,e=0;e<t.pull.length;e++)t.pull[e]>r&&(r=t.pull[e]);return r}function b(t,e){for(var r=[],n=0;n<t.length;n++){var i=t[n][0],a=i.trace,o=a.domain,s=e.w*(o.x[1]-o.x[0]),l=e.h*(o.y[1]-o.y[0]);a.title.text&&\\\"middle center\\\"!==a.title.position&&(l-=y(i,e));var c=s/2,u=l/2;\\\"funnelarea\\\"!==a.type||a.scalegroup||(u/=a.aspectratio),i.r=Math.min(c,u)/(1+x(a)),i.cx=e.l+e.w*(a.domain.x[1]+a.domain.x[0])/2,i.cy=e.t+e.h*(1-a.domain.y[0])-l/2,a.title.text&&-1!==a.title.position.indexOf(\\\"bottom\\\")&&(i.cy-=y(i,e)),a.scalegroup&&-1===r.indexOf(a.scalegroup)&&r.push(a.scalegroup)}!function(t,e){for(var r,n,i,a=0;a<e.length;a++){var o=1/0,s=e[a];for(n=0;n<t.length;n++)if(r=t[n][0],(i=r.trace).scalegroup===s){var l;if(\\\"pie\\\"===i.type)l=r.r*r.r;else if(\\\"funnelarea\\\"===i.type){var c,u;i.aspectratio>1?(c=r.r,u=c/i.aspectratio):(u=r.r,c=u*i.aspectratio),c*=(1+i.baseratio)/2,l=c*u}o=Math.min(o,l/r.vTotal)}for(n=0;n<t.length;n++)if(r=t[n][0],(i=r.trace).scalegroup===s){var f=o*r.vTotal;\\\"funnelarea\\\"===i.type&&(f/=(1+i.baseratio)/2,f/=i.aspectratio),r.r=Math.sqrt(f)}}}(t,r)}e.exports={plot:function(t,e){var r=t._fullLayout;p(e,t),b(e,r._size);var i=s.makeTraceGroups(r._pielayer,e,\\\"trace\\\").each(function(e){var i=n.select(this),u=e[0],p=u.trace;!function(t){var e,r,n,i=t[0],a=i.trace,o=a.rotation*Math.PI/180,s=2*Math.PI/i.vTotal,l=\\\"px0\\\",c=\\\"px1\\\";if(\\\"counterclockwise\\\"===a.direction){for(e=0;e<t.length&&t[e].hidden;e++);if(e===t.length)return;o+=s*t[e].v,s*=-1,l=\\\"px1\\\",c=\\\"px0\\\"}function u(t){return[i.r*Math.sin(t),-i.r*Math.cos(t)]}for(n=u(o),e=0;e<t.length;e++)(r=t[e]).hidden||(r[l]=n,o+=s*r.v/2,r.pxmid=u(o),r.midangle=o,o+=s*r.v/2,n=u(o),r[c]=n,r.largeArc=r.v>i.vTotal/2?1:0,r.halfangle=Math.PI*Math.min(r.v/i.vTotal,.5),r.ring=1-a.hole,r.rInscribed=g(r,i))}(e),i.attr(\\\"stroke-linejoin\\\",\\\"round\\\"),i.each(function(){var i=n.select(this).selectAll(\\\"g.slice\\\").data(e);i.enter().append(\\\"g\\\").classed(\\\"slice\\\",!0),i.exit().remove();var g=[[[],[]],[[],[]]],y=!1;i.each(function(r){if(r.hidden)n.select(this).selectAll(\\\"path,g\\\").remove();else{r.pointNumber=r.i,r.curveNumber=p.index,g[r.pxmid[1]<0?0:1][r.pxmid[0]<0?0:1].push(r);var i=u.cx,a=u.cy,m=n.select(this),x=m.selectAll(\\\"path.surface\\\").data([r]);if(x.enter().append(\\\"path\\\").classed(\\\"surface\\\",!0).style({\\\"pointer-events\\\":\\\"all\\\"}),m.call(f,t,e),p.pull){var b=+c.castOption(p.pull,r.pts)||0;b>0&&(i+=b*r.pxmid[0],a+=b*r.pxmid[1])}r.cxFinal=i,r.cyFinal=a;var _=p.hole;if(r.v===u.vTotal){var w=\\\"M\\\"+(i+r.px0[0])+\\\",\\\"+(a+r.px0[1])+S(r.px0,r.pxmid,!0,1)+S(r.pxmid,r.px0,!0,1)+\\\"Z\\\";_?x.attr(\\\"d\\\",\\\"M\\\"+(i+_*r.px0[0])+\\\",\\\"+(a+_*r.px0[1])+S(r.px0,r.pxmid,!1,_)+S(r.pxmid,r.px0,!1,_)+\\\"Z\\\"+w):x.attr(\\\"d\\\",w)}else{var k=S(r.px0,r.px1,!0,1);if(_){var T=1-_;x.attr(\\\"d\\\",\\\"M\\\"+(i+_*r.px1[0])+\\\",\\\"+(a+_*r.px1[1])+S(r.px1,r.px0,!1,_)+\\\"l\\\"+T*r.px0[0]+\\\",\\\"+T*r.px0[1]+k+\\\"Z\\\")}else x.attr(\\\"d\\\",\\\"M\\\"+i+\\\",\\\"+a+\\\"l\\\"+r.px0[0]+\\\",\\\"+r.px0[1]+k+\\\"Z\\\")}var A=c.castOption(p.textposition,r.pts),M=m.selectAll(\\\"g.slicetext\\\").data(r.text&&\\\"none\\\"!==A?[0]:[]);M.enter().append(\\\"g\\\").classed(\\\"slicetext\\\",!0),M.exit().remove(),M.each(function(){var e=s.ensureSingle(n.select(this),\\\"text\\\",\\\"\\\",function(t){t.attr(\\\"data-notex\\\",1)});e.text(r.text).attr({class:\\\"slicetext\\\",transform:\\\"\\\",\\\"text-anchor\\\":\\\"middle\\\"}).call(o.font,\\\"outside\\\"===A?function(t,e,r){var n=c.castOption(t.outsidetextfont.color,e.pts)||c.castOption(t.textfont.color,e.pts)||r.color,i=c.castOption(t.outsidetextfont.family,e.pts)||c.castOption(t.textfont.family,e.pts)||r.family,a=c.castOption(t.outsidetextfont.size,e.pts)||c.castOption(t.textfont.size,e.pts)||r.size;return{color:n,family:i,size:a}}(p,r,t._fullLayout.font):h(p,r,t._fullLayout.font)).call(l.convertToTspans,t);var f,g=o.bBox(e.node());\\\"outside\\\"===A?f=v(g,r):(f=d(g,r,u),\\\"auto\\\"===A&&f.scale<1&&(e.call(o.font,p.outsidetextfont),p.outsidetextfont.family===p.insidetextfont.family&&p.outsidetextfont.size===p.insidetextfont.size||(g=o.bBox(e.node())),f=v(g,r)));var m=i+r.pxmid[0]*f.rCenter+(f.x||0),x=a+r.pxmid[1]*f.rCenter+(f.y||0);f.outside&&(r.yLabelMin=x-g.height/2,r.yLabelMid=x,r.yLabelMax=x+g.height/2,r.labelExtraX=0,r.labelExtraY=0,y=!0),e.attr(\\\"transform\\\",\\\"translate(\\\"+m+\\\",\\\"+x+\\\")\\\"+(f.scale<1?\\\"scale(\\\"+f.scale+\\\")\\\":\\\"\\\")+(f.rotate?\\\"rotate(\\\"+f.rotate+\\\")\\\":\\\"\\\")+\\\"translate(\\\"+-(g.left+g.right)/2+\\\",\\\"+-(g.top+g.bottom)/2+\\\")\\\")})}function S(t,e,n,i){var a=i*(e[0]-t[0]),o=i*(e[1]-t[1]);return\\\"a\\\"+i*u.r+\\\",\\\"+i*u.r+\\\" 0 \\\"+r.largeArc+(n?\\\" 1 \\\":\\\" 0 \\\")+a+\\\",\\\"+o}});var x=n.select(this).selectAll(\\\"g.titletext\\\").data(p.title.text?[0]:[]);x.enter().append(\\\"g\\\").classed(\\\"titletext\\\",!0),x.exit().remove(),x.each(function(){var e,i=s.ensureSingle(n.select(this),\\\"text\\\",\\\"\\\",function(t){t.attr(\\\"data-notex\\\",1)}),a=p.title.text;p._meta&&(a=s.templateString(a,p._meta)),i.text(a).attr({class:\\\"titletext\\\",transform:\\\"\\\",\\\"text-anchor\\\":\\\"middle\\\"}).call(o.font,p.title.font).call(l.convertToTspans,t),e=\\\"middle center\\\"===p.title.position?function(t){var e=Math.sqrt(t.titleBox.width*t.titleBox.width+t.titleBox.height*t.titleBox.height);return{x:t.cx,y:t.cy,scale:t.trace.hole*t.r*2/e,tx:0,ty:-t.titleBox.height/2+t.trace.title.font.size}}(u):m(u,r._size),i.attr(\\\"transform\\\",\\\"translate(\\\"+e.x+\\\",\\\"+e.y+\\\")\\\"+(e.scale<1?\\\"scale(\\\"+e.scale+\\\")\\\":\\\"\\\")+\\\"translate(\\\"+e.tx+\\\",\\\"+e.ty+\\\")\\\")}),y&&function(t,e){var r,n,i,a,o,s,l,u,f,h,p,d,g;function v(t,e){return t.pxmid[1]-e.pxmid[1]}function m(t,e){return e.pxmid[1]-t.pxmid[1]}function y(t,r){r||(r={});var i,u,f,p,d,g,v=r.labelExtraY+(n?r.yLabelMax:r.yLabelMin),m=n?t.yLabelMin:t.yLabelMax,y=n?t.yLabelMax:t.yLabelMin,x=t.cyFinal+o(t.px0[1],t.px1[1]),b=v-m;if(b*l>0&&(t.labelExtraY=b),Array.isArray(e.pull))for(u=0;u<h.length;u++)(f=h[u])===t||(c.castOption(e.pull,t.pts)||0)>=(c.castOption(e.pull,f.pts)||0)||((t.pxmid[1]-f.pxmid[1])*l>0?(p=f.cyFinal+o(f.px0[1],f.px1[1]),(b=p-m-t.labelExtraY)*l>0&&(t.labelExtraY+=b)):(y+t.labelExtraY-x)*l>0&&(i=3*s*Math.abs(u-h.indexOf(t)),d=f.cxFinal+a(f.px0[0],f.px1[0]),(g=d+i-(t.cxFinal+t.pxmid[0])-t.labelExtraX)*s>0&&(t.labelExtraX+=g)))}for(n=0;n<2;n++)for(i=n?v:m,o=n?Math.max:Math.min,l=n?1:-1,r=0;r<2;r++){for(a=r?Math.max:Math.min,s=r?1:-1,(u=t[n][r]).sort(i),f=t[1-n][r],h=f.concat(u),d=[],p=0;p<u.length;p++)void 0!==u[p].yLabelMid&&d.push(u[p]);for(g=!1,p=0;n&&p<f.length;p++)if(void 0!==f[p].yLabelMid){g=f[p];break}for(p=0;p<d.length;p++){var x=p&&d[p-1];g&&!p&&(x=g),y(d[p],x)}}}(g,p),function(t,e){t.each(function(t){var r=n.select(this);if(t.labelExtraX||t.labelExtraY){var i=r.select(\\\"g.slicetext text\\\");i.attr(\\\"transform\\\",\\\"translate(\\\"+t.labelExtraX+\\\",\\\"+t.labelExtraY+\\\")\\\"+i.attr(\\\"transform\\\"));var o=t.cxFinal+t.pxmid[0],l=t.cyFinal+t.pxmid[1],c=\\\"M\\\"+o+\\\",\\\"+l,u=(t.yLabelMax-t.yLabelMin)*(t.pxmid[0]<0?-1:1)/4;if(t.labelExtraX){var f=t.labelExtraX*t.pxmid[1]/t.pxmid[0],h=t.yLabelMid+t.labelExtraY-(t.cyFinal+t.pxmid[1]);Math.abs(f)>Math.abs(h)?c+=\\\"l\\\"+h*t.pxmid[0]/t.pxmid[1]+\\\",\\\"+h+\\\"H\\\"+(o+t.labelExtraX+u):c+=\\\"l\\\"+t.labelExtraX+\\\",\\\"+f+\\\"v\\\"+(h-f)+\\\"h\\\"+u}else c+=\\\"V\\\"+(t.yLabelMid+t.labelExtraY)+\\\"h\\\"+u;s.ensureSingle(r,\\\"path\\\",\\\"textline\\\").call(a.stroke,e.outsidetextfont.color).attr({\\\"stroke-width\\\":Math.min(2,e.outsidetextfont.size/8),d:c,fill:\\\"none\\\"})}else r.select(\\\"path.textline\\\").remove()})}(i,p)})});setTimeout(function(){i.selectAll(\\\"tspan\\\").each(function(){var t=n.select(this);t.attr(\\\"dy\\\")&&t.attr(\\\"dy\\\",t.attr(\\\"dy\\\"))})},0)},transformInsideText:d,determineInsideTextFont:h,positionTitleOutside:m,prerenderTitles:p,layoutAreas:b,attachFxHandlers:f}},{\\\"../../components/color\\\":580,\\\"../../components/drawing\\\":601,\\\"../../components/fx\\\":619,\\\"../../lib\\\":703,\\\"../../lib/svg_text_utils\\\":727,\\\"./event_data\\\":1053,\\\"./helpers\\\":1054,d3:157}],1059:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"./style_one\\\");e.exports=function(t){t._fullLayout._pielayer.selectAll(\\\".trace\\\").each(function(t){var e=t[0].trace,r=n.select(this);r.style({opacity:e.opacity}),r.selectAll(\\\"path.surface\\\").each(function(t){n.select(this).call(i,t,e)})})}},{\\\"./style_one\\\":1060,d3:157}],1060:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/color\\\"),i=t(\\\"./helpers\\\").castOption;e.exports=function(t,e,r){var a=r.marker.line,o=i(a.color,e.pts)||n.defaultLine,s=i(a.width,e.pts)||0;t.style(\\\"stroke-width\\\",s).call(n.fill,e.color).call(n.stroke,o)}},{\\\"../../components/color\\\":580,\\\"./helpers\\\":1054}],1061:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../scatter/attributes\\\");e.exports={x:n.x,y:n.y,xy:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},indices:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},xbounds:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},ybounds:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},text:n.text,marker:{color:{valType:\\\"color\\\",arrayOk:!1,editType:\\\"calc\\\"},opacity:{valType:\\\"number\\\",min:0,max:1,dflt:1,arrayOk:!1,editType:\\\"calc\\\"},blend:{valType:\\\"boolean\\\",dflt:null,editType:\\\"calc\\\"},sizemin:{valType:\\\"number\\\",min:.1,max:2,dflt:.5,editType:\\\"calc\\\"},sizemax:{valType:\\\"number\\\",min:.1,dflt:20,editType:\\\"calc\\\"},border:{color:{valType:\\\"color\\\",arrayOk:!1,editType:\\\"calc\\\"},arearatio:{valType:\\\"number\\\",min:0,max:1,dflt:0,editType:\\\"calc\\\"},editType:\\\"calc\\\"},editType:\\\"calc\\\"},transforms:void 0}},{\\\"../scatter/attributes\\\":1075}],1062:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-pointcloud2d\\\"),i=t(\\\"../../lib/str2rgbarray\\\"),a=t(\\\"../../plots/cartesian/autorange\\\").findExtremes,o=t(\\\"../scatter/get_trace_color\\\");function s(t,e){this.scene=t,this.uid=e,this.type=\\\"pointcloud\\\",this.pickXData=[],this.pickYData=[],this.xData=[],this.yData=[],this.textLabels=[],this.color=\\\"rgb(0, 0, 0)\\\",this.name=\\\"\\\",this.hoverinfo=\\\"all\\\",this.idToIndex=new Int32Array(0),this.bounds=[0,0,0,0],this.pointcloudOptions={positions:new Float32Array(0),idToIndex:this.idToIndex,sizemin:.5,sizemax:12,color:[0,0,0,1],areaRatio:1,borderColor:[0,0,0,1]},this.pointcloud=n(t.glplot,this.pointcloudOptions),this.pointcloud._trace=this}var l=s.prototype;l.handlePick=function(t){var e=this.idToIndex[t.pointId];return{trace:this,dataCoord:t.dataCoord,traceCoord:this.pickXYData?[this.pickXYData[2*e],this.pickXYData[2*e+1]]:[this.pickXData[e],this.pickYData[e]],textLabel:Array.isArray(this.textLabels)?this.textLabels[e]:this.textLabels,color:this.color,name:this.name,pointIndex:e,hoverinfo:this.hoverinfo}},l.update=function(t){this.index=t.index,this.textLabels=t.text,this.name=t.name,this.hoverinfo=t.hoverinfo,this.bounds=[1/0,1/0,-1/0,-1/0],this.updateFast(t),this.color=o(t,{})},l.updateFast=function(t){var e,r,n,o,s,l,c=this.xData=this.pickXData=t.x,u=this.yData=this.pickYData=t.y,f=this.pickXYData=t.xy,h=t.xbounds&&t.ybounds,p=t.indices,d=this.bounds;if(f){if(n=f,e=f.length>>>1,h)d[0]=t.xbounds[0],d[2]=t.xbounds[1],d[1]=t.ybounds[0],d[3]=t.ybounds[1];else for(l=0;l<e;l++)o=n[2*l],s=n[2*l+1],o<d[0]&&(d[0]=o),o>d[2]&&(d[2]=o),s<d[1]&&(d[1]=s),s>d[3]&&(d[3]=s);if(p)r=p;else for(r=new Int32Array(e),l=0;l<e;l++)r[l]=l}else for(e=c.length,n=new Float32Array(2*e),r=new Int32Array(e),l=0;l<e;l++)o=c[l],s=u[l],r[l]=l,n[2*l]=o,n[2*l+1]=s,o<d[0]&&(d[0]=o),o>d[2]&&(d[2]=o),s<d[1]&&(d[1]=s),s>d[3]&&(d[3]=s);this.idToIndex=r,this.pointcloudOptions.idToIndex=r,this.pointcloudOptions.positions=n;var g=i(t.marker.color),v=i(t.marker.border.color),m=t.opacity*t.marker.opacity;g[3]*=m,this.pointcloudOptions.color=g;var y=t.marker.blend;if(null===y){y=c.length<100||u.length<100}this.pointcloudOptions.blend=y,v[3]*=m,this.pointcloudOptions.borderColor=v;var x=t.marker.sizemin,b=Math.max(t.marker.sizemax,t.marker.sizemin);this.pointcloudOptions.sizeMin=x,this.pointcloudOptions.sizeMax=b,this.pointcloudOptions.areaRatio=t.marker.border.arearatio,this.pointcloud.update(this.pointcloudOptions);var _=this.scene.xaxis,w=this.scene.yaxis,k=b/2||.5;t._extremes[_._id]=a(_,[d[0],d[2]],{ppad:k}),t._extremes[w._id]=a(w,[d[1],d[3]],{ppad:k})},l.dispose=function(){this.pointcloud.dispose()},e.exports=function(t,e){var r=new s(t,e.uid);return r.update(e),r}},{\\\"../../lib/str2rgbarray\\\":726,\\\"../../plots/cartesian/autorange\\\":750,\\\"../scatter/get_trace_color\\\":1084,\\\"gl-pointcloud2d\\\":291}],1063:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./attributes\\\");e.exports=function(t,e,r){function a(r,a){return n.coerce(t,e,i,r,a)}a(\\\"x\\\"),a(\\\"y\\\"),a(\\\"xbounds\\\"),a(\\\"ybounds\\\"),t.xy&&t.xy instanceof Float32Array&&(e.xy=t.xy),t.indices&&t.indices instanceof Int32Array&&(e.indices=t.indices),a(\\\"text\\\"),a(\\\"marker.color\\\",r),a(\\\"marker.opacity\\\"),a(\\\"marker.blend\\\"),a(\\\"marker.sizemin\\\"),a(\\\"marker.sizemax\\\"),a(\\\"marker.border.color\\\",r),a(\\\"marker.border.arearatio\\\"),e._length=null}},{\\\"../../lib\\\":703,\\\"./attributes\\\":1061}],1064:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),calc:t(\\\"../scatter3d/calc\\\"),plot:t(\\\"./convert\\\"),moduleType:\\\"trace\\\",name:\\\"pointcloud\\\",basePlotModule:t(\\\"../../plots/gl2d\\\"),categories:[\\\"gl\\\",\\\"gl2d\\\",\\\"showLegend\\\"],meta:{}}},{\\\"../../plots/gl2d\\\":789,\\\"../scatter3d/calc\\\":1102,\\\"./attributes\\\":1061,\\\"./convert\\\":1062,\\\"./defaults\\\":1063}],1065:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/font_attributes\\\"),i=t(\\\"../../plots/attributes\\\"),a=t(\\\"../../components/color/attributes\\\"),o=t(\\\"../../components/fx/attributes\\\"),s=t(\\\"../../plots/domain\\\").attributes,l=t(\\\"../../components/fx/hovertemplate_attributes\\\"),c=t(\\\"../../components/colorscale/attributes\\\"),u=t(\\\"../../plot_api/plot_template\\\").templatedArray,f=t(\\\"../../lib/extend\\\").extendFlat,h=t(\\\"../../plot_api/edit_types\\\").overrideAll;(e.exports=h({hoverinfo:f({},i.hoverinfo,{flags:[],arrayOk:!1}),hoverlabel:o.hoverlabel,domain:s({name:\\\"sankey\\\",trace:!0}),orientation:{valType:\\\"enumerated\\\",values:[\\\"v\\\",\\\"h\\\"],dflt:\\\"h\\\"},valueformat:{valType:\\\"string\\\",dflt:\\\".3s\\\"},valuesuffix:{valType:\\\"string\\\",dflt:\\\"\\\"},arrangement:{valType:\\\"enumerated\\\",values:[\\\"snap\\\",\\\"perpendicular\\\",\\\"freeform\\\",\\\"fixed\\\"],dflt:\\\"snap\\\"},textfont:n({}),node:{label:{valType:\\\"data_array\\\",dflt:[]},groups:{valType:\\\"info_array\\\",impliedEdits:{x:[],y:[]},dimensions:2,freeLength:!0,dflt:[],items:{valType:\\\"number\\\",editType:\\\"calc\\\"}},x:{valType:\\\"data_array\\\",dflt:[]},y:{valType:\\\"data_array\\\",dflt:[]},color:{valType:\\\"color\\\",arrayOk:!0},line:{color:{valType:\\\"color\\\",dflt:a.defaultLine,arrayOk:!0},width:{valType:\\\"number\\\",min:0,dflt:.5,arrayOk:!0}},pad:{valType:\\\"number\\\",arrayOk:!1,min:0,dflt:20},thickness:{valType:\\\"number\\\",arrayOk:!1,min:1,dflt:20},hoverinfo:{valType:\\\"enumerated\\\",values:[\\\"all\\\",\\\"none\\\",\\\"skip\\\"],dflt:\\\"all\\\"},hoverlabel:o.hoverlabel,hovertemplate:l({},{keys:[\\\"value\\\",\\\"label\\\"]})},link:{label:{valType:\\\"data_array\\\",dflt:[]},color:{valType:\\\"color\\\",arrayOk:!0},line:{color:{valType:\\\"color\\\",dflt:a.defaultLine,arrayOk:!0},width:{valType:\\\"number\\\",min:0,dflt:0,arrayOk:!0}},source:{valType:\\\"data_array\\\",dflt:[]},target:{valType:\\\"data_array\\\",dflt:[]},value:{valType:\\\"data_array\\\",dflt:[]},hoverinfo:{valType:\\\"enumerated\\\",values:[\\\"all\\\",\\\"none\\\",\\\"skip\\\"],dflt:\\\"all\\\"},hoverlabel:o.hoverlabel,hovertemplate:l({},{keys:[\\\"value\\\",\\\"label\\\"]}),colorscales:u(\\\"concentrationscales\\\",{editType:\\\"calc\\\",label:{valType:\\\"string\\\",editType:\\\"calc\\\",dflt:\\\"\\\"},cmax:{valType:\\\"number\\\",editType:\\\"calc\\\",dflt:1},cmin:{valType:\\\"number\\\",editType:\\\"calc\\\",dflt:0},colorscale:f(c().colorscale,{dflt:[[0,\\\"white\\\"],[1,\\\"black\\\"]]})})}},\\\"calc\\\",\\\"nested\\\")).transforms=void 0},{\\\"../../components/color/attributes\\\":579,\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/fx/attributes\\\":610,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plot_api/edit_types\\\":734,\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/attributes\\\":748,\\\"../../plots/domain\\\":776,\\\"../../plots/font_attributes\\\":777}],1066:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plot_api/edit_types\\\").overrideAll,i=t(\\\"../../plots/get_data\\\").getModuleCalcData,a=t(\\\"./plot\\\"),o=t(\\\"../../components/fx/layout_attributes\\\"),s=t(\\\"../../lib/setcursor\\\"),l=t(\\\"../../components/dragelement\\\"),c=t(\\\"../../plots/cartesian/select\\\").prepSelect,u=t(\\\"../../lib\\\"),f=t(\\\"../../registry\\\");function h(t,e){var r=t._fullData[e],n=t._fullLayout,i=n.dragmode,a=\\\"pan\\\"===n.dragmode?\\\"move\\\":\\\"crosshair\\\",o=r._bgRect;if(\\\"pan\\\"!==i&&\\\"zoom\\\"!==i){s(o,a);var h={_id:\\\"x\\\",c2p:u.identity,_offset:r._sankey.translateX,_length:r._sankey.width},p={_id:\\\"y\\\",c2p:u.identity,_offset:r._sankey.translateY,_length:r._sankey.height},d={gd:t,element:o.node(),plotinfo:{id:e,xaxis:h,yaxis:p,fillRangeItems:u.noop},subplot:e,xaxes:[h],yaxes:[p],doneFnCompleted:function(r){var n,i=t._fullData[e],a=i.node.groups.slice(),o=[];function s(t){for(var e=i._sankey.graph.nodes,r=0;r<e.length;r++)if(e[r].pointNumber===t)return e[r]}for(var l=0;l<r.length;l++){var c=s(r[l].pointNumber);if(c)if(c.group){for(var u=0;u<c.childrenNodes.length;u++)o.push(c.childrenNodes[u].pointNumber);a[c.pointNumber-i.node._count]=!1}else o.push(c.pointNumber)}n=a.filter(Boolean).concat([o]),f.call(\\\"_guiRestyle\\\",t,{\\\"node.groups\\\":[n]},e)},prepFn:function(t,e,r){c(t,e,r,d,i)}};l.init(d)}}r.name=\\\"sankey\\\",r.baseLayoutAttrOverrides=n({hoverlabel:o.hoverlabel},\\\"plot\\\",\\\"nested\\\"),r.plot=function(t){var e=i(t.calcdata,\\\"sankey\\\")[0];a(t,e),r.updateFx(t)},r.clean=function(t,e,r,n){var i=n._has&&n._has(\\\"sankey\\\"),a=e._has&&e._has(\\\"sankey\\\");i&&!a&&(n._paperdiv.selectAll(\\\".sankey\\\").remove(),n._paperdiv.selectAll(\\\".bgsankey\\\").remove())},r.updateFx=function(t){for(var e=0;e<t._fullData.length;e++)h(t,e)}},{\\\"../../components/dragelement\\\":598,\\\"../../components/fx/layout_attributes\\\":620,\\\"../../lib\\\":703,\\\"../../lib/setcursor\\\":723,\\\"../../plot_api/edit_types\\\":734,\\\"../../plots/cartesian/select\\\":768,\\\"../../plots/get_data\\\":786,\\\"../../registry\\\":831,\\\"./plot\\\":1071}],1067:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"strongly-connected-components\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../lib/gup\\\").wrap,o=i.isArrayOrTypedArray,s=i.isIndex,l=t(\\\"../../components/colorscale\\\");function c(t){var e,r=t.node,a=t.link,c=[],u=o(a.color),f={},h={},p=a.colorscales.length;for(e=0;e<p;e++){var d=a.colorscales[e],g=l.extractScale(d,{cLetter:\\\"c\\\"}),v=l.makeColorScaleFunc(g);h[d.label]=v}var m=0;for(e=0;e<a.value.length;e++)a.source[e]>m&&(m=a.source[e]),a.target[e]>m&&(m=a.target[e]);var y,x=m+1;t.node._count=x;var b=t.node.groups,_={};for(e=0;e<b.length;e++){var w=b[e];for(y=0;y<w.length;y++){var k=w[y],T=x+e;_.hasOwnProperty(k)?i.warn(\\\"Node \\\"+k+\\\" is already part of a group.\\\"):_[k]=T}}var A={source:[],target:[]};for(e=0;e<a.value.length;e++){var M=a.value[e],S=a.source[e],E=a.target[e];if(M>0&&s(S,x)&&s(E,x)&&(!_.hasOwnProperty(S)||!_.hasOwnProperty(E)||_[S]!==_[E])){_.hasOwnProperty(E)&&(E=_[E]),_.hasOwnProperty(S)&&(S=_[S]),E=+E,f[S=+S]=f[E]=!0;var C=\\\"\\\";a.label&&a.label[e]&&(C=a.label[e]);var L=null;C&&h.hasOwnProperty(C)&&(L=h[C]),c.push({pointNumber:e,label:C,color:u?a.color[e]:a.color,concentrationscale:L,source:S,target:E,value:+M}),A.source.push(S),A.target.push(E)}}var z=x+b.length,O=o(r.color),I=[];for(e=0;e<z;e++)if(f[e]){var D=r.label[e];I.push({group:e>x-1,childrenNodes:[],pointNumber:e,label:D,color:O?r.color[e]:r.color})}var P=!1;return function(t,e,r){for(var a=i.init2dArray(t,0),o=0;o<Math.min(e.length,r.length);o++)if(i.isIndex(e[o],t)&&i.isIndex(r[o],t)){if(e[o]===r[o])return!0;a[e[o]].push(r[o])}return n(a).components.some(function(t){return t.length>1})}(z,A.source,A.target)&&(P=!0),{circular:P,links:c,nodes:I,groups:b,groupLookup:_}}e.exports=function(t,e){var r=c(e);return a({circular:r.circular,_nodes:r.nodes,_links:r.links,_groups:r.groups,_groupLookup:r.groupLookup})}},{\\\"../../components/colorscale\\\":592,\\\"../../lib\\\":703,\\\"../../lib/gup\\\":701,\\\"strongly-connected-components\\\":517}],1068:[function(t,e,r){\\\"use strict\\\";e.exports={nodeTextOffsetHorizontal:4,nodeTextOffsetVertical:3,nodePadAcross:10,sankeyIterations:50,forceIterations:5,forceTicksPerFrame:10,duration:500,ease:\\\"linear\\\",cn:{sankey:\\\"sankey\\\",sankeyLinks:\\\"sankey-links\\\",sankeyLink:\\\"sankey-link\\\",sankeyNodeSet:\\\"sankey-node-set\\\",sankeyNode:\\\"sankey-node\\\",nodeRect:\\\"node-rect\\\",nodeCapture:\\\"node-capture\\\",nodeCentered:\\\"node-entered\\\",nodeLabelGuide:\\\"node-label-guide\\\",nodeLabel:\\\"node-label\\\",nodeLabelTextPath:\\\"node-label-text-path\\\"}}},{}],1069:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./attributes\\\"),a=t(\\\"../../components/color\\\"),o=t(\\\"tinycolor2\\\"),s=t(\\\"../../plots/domain\\\").defaults,l=t(\\\"../../components/fx/hoverlabel_defaults\\\"),c=t(\\\"../../plot_api/plot_template\\\"),u=t(\\\"../../plots/array_container_defaults\\\");function f(t,e){function r(r,a){return n.coerce(t,e,i.link.colorscales,r,a)}r(\\\"label\\\"),r(\\\"cmin\\\"),r(\\\"cmax\\\"),r(\\\"colorscale\\\")}e.exports=function(t,e,r,h){function p(r,a){return n.coerce(t,e,i,r,a)}var d=n.extendDeep(h.hoverlabel,t.hoverlabel),g=t.node,v=c.newContainer(e,\\\"node\\\");function m(t,e){return n.coerce(g,v,i.node,t,e)}m(\\\"label\\\"),m(\\\"groups\\\"),m(\\\"x\\\"),m(\\\"y\\\"),m(\\\"pad\\\"),m(\\\"thickness\\\"),m(\\\"line.color\\\"),m(\\\"line.width\\\"),m(\\\"hoverinfo\\\",t.hoverinfo),l(g,v,m,d),m(\\\"hovertemplate\\\");var y=h.colorway;m(\\\"color\\\",v.label.map(function(t,e){return a.addOpacity(function(t){return y[t%y.length]}(e),.8)}));var x=t.link||{},b=c.newContainer(e,\\\"link\\\");function _(t,e){return n.coerce(x,b,i.link,t,e)}_(\\\"label\\\"),_(\\\"source\\\"),_(\\\"target\\\"),_(\\\"value\\\"),_(\\\"line.color\\\"),_(\\\"line.width\\\"),_(\\\"hoverinfo\\\",t.hoverinfo),l(x,b,_,d),_(\\\"hovertemplate\\\");var w,k=o(h.paper_bgcolor).getLuminance()<.333?\\\"rgba(255, 255, 255, 0.6)\\\":\\\"rgba(0, 0, 0, 0.2)\\\";_(\\\"color\\\",n.repeat(k,b.value.length)),u(x,b,{name:\\\"colorscales\\\",handleItemDefaults:f}),s(e,h,p),p(\\\"orientation\\\"),p(\\\"valueformat\\\"),p(\\\"valuesuffix\\\"),v.x.length&&v.y.length&&(w=\\\"freeform\\\"),p(\\\"arrangement\\\",w),n.coerceFont(p,\\\"textfont\\\",n.extendFlat({},h.font)),e._length=null}},{\\\"../../components/color\\\":580,\\\"../../components/fx/hoverlabel_defaults\\\":617,\\\"../../lib\\\":703,\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/array_container_defaults\\\":747,\\\"../../plots/domain\\\":776,\\\"./attributes\\\":1065,tinycolor2:524}],1070:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),calc:t(\\\"./calc\\\"),plot:t(\\\"./plot\\\"),moduleType:\\\"trace\\\",name:\\\"sankey\\\",basePlotModule:t(\\\"./base_plot\\\"),selectPoints:t(\\\"./select.js\\\"),categories:[\\\"noOpacity\\\"],meta:{}}},{\\\"./attributes\\\":1065,\\\"./base_plot\\\":1066,\\\"./calc\\\":1067,\\\"./defaults\\\":1069,\\\"./plot\\\":1071,\\\"./select.js\\\":1073}],1071:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"./render\\\"),a=t(\\\"../../components/fx\\\"),o=t(\\\"../../components/color\\\"),s=t(\\\"../../lib\\\"),l=t(\\\"./constants\\\").cn,c=s._;function u(t){return\\\"\\\"!==t}function f(t,e){return t.filter(function(t){return t.key===e.traceId})}function h(t,e){n.select(t).select(\\\"path\\\").style(\\\"fill-opacity\\\",e),n.select(t).select(\\\"rect\\\").style(\\\"fill-opacity\\\",e)}function p(t){n.select(t).select(\\\"text.name\\\").style(\\\"fill\\\",\\\"black\\\")}function d(t){return function(e){return-1!==t.node.sourceLinks.indexOf(e.link)||-1!==t.node.targetLinks.indexOf(e.link)}}function g(t){return function(e){return-1!==e.node.sourceLinks.indexOf(t.link)||-1!==e.node.targetLinks.indexOf(t.link)}}function v(t,e,r){e&&r&&f(r,e).selectAll(\\\".\\\"+l.sankeyLink).filter(d(e)).call(y.bind(0,e,r,!1))}function m(t,e,r){e&&r&&f(r,e).selectAll(\\\".\\\"+l.sankeyLink).filter(d(e)).call(x.bind(0,e,r,!1))}function y(t,e,r,n){var i=n.datum().link.label;n.style(\\\"fill-opacity\\\",function(t){if(!t.link.concentrationscale)return.4}),i&&f(e,t).selectAll(\\\".\\\"+l.sankeyLink).filter(function(t){return t.link.label===i}).style(\\\"fill-opacity\\\",function(t){if(!t.link.concentrationscale)return.4}),r&&f(e,t).selectAll(\\\".\\\"+l.sankeyNode).filter(g(t)).call(v)}function x(t,e,r,n){var i=n.datum().link.label;n.style(\\\"fill-opacity\\\",function(t){return t.tinyColorAlpha}),i&&f(e,t).selectAll(\\\".\\\"+l.sankeyLink).filter(function(t){return t.link.label===i}).style(\\\"fill-opacity\\\",function(t){return t.tinyColorAlpha}),r&&f(e,t).selectAll(l.sankeyNode).filter(g(t)).call(m)}function b(t,e){var r=t.hoverlabel||{},n=s.nestedProperty(r,e).get();return!Array.isArray(n)&&n}e.exports=function(t,e){for(var r=t._fullLayout,s=r._paper,f=r._size,d=0;d<t._fullData.length;d++)if(t._fullData[d].type===l.sankey&&!t._fullData[d]._viewInitial){var g=t._fullData[d].node;t._fullData[d]._viewInitial={node:{groups:g.groups.slice(),x:g.x.slice(),y:g.y.slice()}}}var _=c(t,\\\"source:\\\")+\\\" \\\",w=c(t,\\\"target:\\\")+\\\" \\\",k=c(t,\\\"concentration:\\\")+\\\" \\\",T=c(t,\\\"incoming flow count:\\\")+\\\" \\\",A=c(t,\\\"outgoing flow count:\\\")+\\\" \\\";i(t,s,e,{width:f.w,height:f.h,margin:{t:f.t,r:f.r,b:f.b,l:f.l}},{linkEvents:{hover:function(e,r,i){!1!==t._fullLayout.hovermode&&(n.select(e).call(y.bind(0,r,i,!0)),\\\"skip\\\"!==r.link.trace.link.hoverinfo&&(r.link.fullData=r.link.trace,t.emit(\\\"plotly_hover\\\",{event:n.event,points:[r.link]})))},follow:function(e,i){if(!1!==t._fullLayout.hovermode){var s=i.link.trace.link;if(\\\"none\\\"!==s.hoverinfo&&\\\"skip\\\"!==s.hoverinfo){for(var l=[],c=0,f=0;f<i.flow.links.length;f++){var d=i.flow.links[f];if(\\\"closest\\\"!==t._fullLayout.hovermode||i.link.pointNumber===d.pointNumber){i.link.pointNumber===d.pointNumber&&(c=f),d.fullData=d.trace,s=i.link.trace.link;var g=m(d),v={valueLabel:n.format(i.valueFormat)(d.value)+i.valueSuffix};l.push({x:g[0],y:g[1],name:v.valueLabel,text:[d.label||\\\"\\\",_+d.source.label,w+d.target.label,d.concentrationscale?k+n.format(\\\"%0.2f\\\")(d.flow.labelConcentration):\\\"\\\"].filter(u).join(\\\"<br>\\\"),color:b(s,\\\"bgcolor\\\")||o.addOpacity(d.color,1),borderColor:b(s,\\\"bordercolor\\\"),fontFamily:b(s,\\\"font.family\\\"),fontSize:b(s,\\\"font.size\\\"),fontColor:b(s,\\\"font.color\\\"),nameLength:b(s,\\\"namelength\\\"),textAlign:b(s,\\\"align\\\"),idealAlign:n.event.x<g[0]?\\\"right\\\":\\\"left\\\",hovertemplate:s.hovertemplate,hovertemplateLabels:v,eventData:[d]})}}a.loneHover(l,{container:r._hoverlayer.node(),outerContainer:r._paper.node(),gd:t,anchorIndex:c}).each(function(){i.link.concentrationscale||h(this,.65),p(this)})}}function m(t){var e,r;return t.circular?(e=(t.circularPathData.leftInnerExtent+t.circularPathData.rightInnerExtent)/2+i.parent.translateX,r=t.circularPathData.verticalFullExtent+i.parent.translateY):(e=(t.source.x1+t.target.x0)/2+i.parent.translateX,r=(t.y0+t.y1)/2+i.parent.translateY),[e,r]}},unhover:function(e,i,o){!1!==t._fullLayout.hovermode&&(n.select(e).call(x.bind(0,i,o,!0)),\\\"skip\\\"!==i.link.trace.link.hoverinfo&&(i.link.fullData=i.link.trace,t.emit(\\\"plotly_unhover\\\",{event:n.event,points:[i.link]})),a.loneUnhover(r._hoverlayer.node()))},select:function(e,r){var i=r.link;i.originalEvent=n.event,t._hoverdata=[i],a.click(t,{target:!0})}},nodeEvents:{hover:function(e,r,i){!1!==t._fullLayout.hovermode&&(n.select(e).call(v,r,i),\\\"skip\\\"!==r.node.trace.node.hoverinfo&&(r.node.fullData=r.node.trace,t.emit(\\\"plotly_hover\\\",{event:n.event,points:[r.node]})))},follow:function(e,i){if(!1!==t._fullLayout.hovermode){var o=i.node.trace.node;if(\\\"none\\\"!==o.hoverinfo&&\\\"skip\\\"!==o.hoverinfo){var s=n.select(e).select(\\\".\\\"+l.nodeRect),c=t._fullLayout._paperdiv.node().getBoundingClientRect(),f=s.node().getBoundingClientRect(),d=f.left-2-c.left,g=f.right+2-c.left,v=f.top+f.height/4-c.top,m={valueLabel:n.format(i.valueFormat)(i.node.value)+i.valueSuffix};i.node.fullData=i.node.trace;var y=a.loneHover({x0:d,x1:g,y:v,name:n.format(i.valueFormat)(i.node.value)+i.valueSuffix,text:[i.node.label,T+i.node.targetLinks.length,A+i.node.sourceLinks.length].filter(u).join(\\\"<br>\\\"),color:b(o,\\\"bgcolor\\\")||i.tinyColorHue,borderColor:b(o,\\\"bordercolor\\\"),fontFamily:b(o,\\\"font.family\\\"),fontSize:b(o,\\\"font.size\\\"),fontColor:b(o,\\\"font.color\\\"),nameLength:b(o,\\\"namelength\\\"),textAlign:b(o,\\\"align\\\"),idealAlign:\\\"left\\\",hovertemplate:o.hovertemplate,hovertemplateLabels:m,eventData:[i.node]},{container:r._hoverlayer.node(),outerContainer:r._paper.node(),gd:t});h(y,.85),p(y)}}},unhover:function(e,i,o){!1!==t._fullLayout.hovermode&&(n.select(e).call(m,i,o),\\\"skip\\\"!==i.node.trace.node.hoverinfo&&(i.node.fullData=i.node.trace,t.emit(\\\"plotly_unhover\\\",{event:n.event,points:[i.node]})),a.loneUnhover(r._hoverlayer.node()))},select:function(e,r,i){var o=r.node;o.originalEvent=n.event,t._hoverdata=[o],n.select(e).call(m,r,i),a.click(t,{target:!0})}}})}},{\\\"../../components/color\\\":580,\\\"../../components/fx\\\":619,\\\"../../lib\\\":703,\\\"./constants\\\":1068,\\\"./render\\\":1072,d3:157}],1072:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./constants\\\"),i=t(\\\"d3\\\"),a=t(\\\"tinycolor2\\\"),o=t(\\\"../../components/color\\\"),s=t(\\\"../../components/drawing\\\"),l=t(\\\"@plotly/d3-sankey\\\"),c=t(\\\"d3-sankey-circular\\\"),u=t(\\\"d3-force\\\"),f=t(\\\"../../lib\\\"),h=t(\\\"../../lib/gup\\\"),p=h.keyFun,d=h.repeat,g=h.unwrap,v=t(\\\"d3-interpolate\\\").interpolateNumber,m=t(\\\"../../registry\\\");function y(){var t=.5;return function(e){if(e.link.circular)return r=e.link,n=r.width/2,i=r.circularPathData,\\\"top\\\"===r.circularLinkType?\\\"M \\\"+i.targetX+\\\" \\\"+(i.targetY+n)+\\\" L\\\"+i.rightInnerExtent+\\\" \\\"+(i.targetY+n)+\\\"A\\\"+(i.rightLargeArcRadius+n)+\\\" \\\"+(i.rightSmallArcRadius+n)+\\\" 0 0 1 \\\"+(i.rightFullExtent-n)+\\\" \\\"+(i.targetY-i.rightSmallArcRadius)+\\\"L\\\"+(i.rightFullExtent-n)+\\\" \\\"+i.verticalRightInnerExtent+\\\"A\\\"+(i.rightLargeArcRadius+n)+\\\" \\\"+(i.rightLargeArcRadius+n)+\\\" 0 0 1 \\\"+i.rightInnerExtent+\\\" \\\"+(i.verticalFullExtent-n)+\\\"L\\\"+i.leftInnerExtent+\\\" \\\"+(i.verticalFullExtent-n)+\\\"A\\\"+(i.leftLargeArcRadius+n)+\\\" \\\"+(i.leftLargeArcRadius+n)+\\\" 0 0 1 \\\"+(i.leftFullExtent+n)+\\\" \\\"+i.verticalLeftInnerExtent+\\\"L\\\"+(i.leftFullExtent+n)+\\\" \\\"+(i.sourceY-i.leftSmallArcRadius)+\\\"A\\\"+(i.leftLargeArcRadius+n)+\\\" \\\"+(i.leftSmallArcRadius+n)+\\\" 0 0 1 \\\"+i.leftInnerExtent+\\\" \\\"+(i.sourceY+n)+\\\"L\\\"+i.sourceX+\\\" \\\"+(i.sourceY+n)+\\\"L\\\"+i.sourceX+\\\" \\\"+(i.sourceY-n)+\\\"L\\\"+i.leftInnerExtent+\\\" \\\"+(i.sourceY-n)+\\\"A\\\"+(i.leftLargeArcRadius-n)+\\\" \\\"+(i.leftSmallArcRadius-n)+\\\" 0 0 0 \\\"+(i.leftFullExtent-n)+\\\" \\\"+(i.sourceY-i.leftSmallArcRadius)+\\\"L\\\"+(i.leftFullExtent-n)+\\\" \\\"+i.verticalLeftInnerExtent+\\\"A\\\"+(i.leftLargeArcRadius-n)+\\\" \\\"+(i.leftLargeArcRadius-n)+\\\" 0 0 0 \\\"+i.leftInnerExtent+\\\" \\\"+(i.verticalFullExtent+n)+\\\"L\\\"+i.rightInnerExtent+\\\" \\\"+(i.verticalFullExtent+n)+\\\"A\\\"+(i.rightLargeArcRadius-n)+\\\" \\\"+(i.rightLargeArcRadius-n)+\\\" 0 0 0 \\\"+(i.rightFullExtent+n)+\\\" \\\"+i.verticalRightInnerExtent+\\\"L\\\"+(i.rightFullExtent+n)+\\\" \\\"+(i.targetY-i.rightSmallArcRadius)+\\\"A\\\"+(i.rightLargeArcRadius-n)+\\\" \\\"+(i.rightSmallArcRadius-n)+\\\" 0 0 0 \\\"+i.rightInnerExtent+\\\" \\\"+(i.targetY-n)+\\\"L\\\"+i.targetX+\\\" \\\"+(i.targetY-n)+\\\"Z\\\":\\\"M \\\"+i.targetX+\\\" \\\"+(i.targetY-n)+\\\" L\\\"+i.rightInnerExtent+\\\" \\\"+(i.targetY-n)+\\\"A\\\"+(i.rightLargeArcRadius+n)+\\\" \\\"+(i.rightSmallArcRadius+n)+\\\" 0 0 0 \\\"+(i.rightFullExtent-n)+\\\" \\\"+(i.targetY+i.rightSmallArcRadius)+\\\"L\\\"+(i.rightFullExtent-n)+\\\" \\\"+i.verticalRightInnerExtent+\\\"A\\\"+(i.rightLargeArcRadius+n)+\\\" \\\"+(i.rightLargeArcRadius+n)+\\\" 0 0 0 \\\"+i.rightInnerExtent+\\\" \\\"+(i.verticalFullExtent+n)+\\\"L\\\"+i.leftInnerExtent+\\\" \\\"+(i.verticalFullExtent+n)+\\\"A\\\"+(i.leftLargeArcRadius+n)+\\\" \\\"+(i.leftLargeArcRadius+n)+\\\" 0 0 0 \\\"+(i.leftFullExtent+n)+\\\" \\\"+i.verticalLeftInnerExtent+\\\"L\\\"+(i.leftFullExtent+n)+\\\" \\\"+(i.sourceY+i.leftSmallArcRadius)+\\\"A\\\"+(i.leftLargeArcRadius+n)+\\\" \\\"+(i.leftSmallArcRadius+n)+\\\" 0 0 0 \\\"+i.leftInnerExtent+\\\" \\\"+(i.sourceY-n)+\\\"L\\\"+i.sourceX+\\\" \\\"+(i.sourceY-n)+\\\"L\\\"+i.sourceX+\\\" \\\"+(i.sourceY+n)+\\\"L\\\"+i.leftInnerExtent+\\\" \\\"+(i.sourceY+n)+\\\"A\\\"+(i.leftLargeArcRadius-n)+\\\" \\\"+(i.leftSmallArcRadius-n)+\\\" 0 0 1 \\\"+(i.leftFullExtent-n)+\\\" \\\"+(i.sourceY+i.leftSmallArcRadius)+\\\"L\\\"+(i.leftFullExtent-n)+\\\" \\\"+i.verticalLeftInnerExtent+\\\"A\\\"+(i.leftLargeArcRadius-n)+\\\" \\\"+(i.leftLargeArcRadius-n)+\\\" 0 0 1 \\\"+i.leftInnerExtent+\\\" \\\"+(i.verticalFullExtent-n)+\\\"L\\\"+i.rightInnerExtent+\\\" \\\"+(i.verticalFullExtent-n)+\\\"A\\\"+(i.rightLargeArcRadius-n)+\\\" \\\"+(i.rightLargeArcRadius-n)+\\\" 0 0 1 \\\"+(i.rightFullExtent+n)+\\\" \\\"+i.verticalRightInnerExtent+\\\"L\\\"+(i.rightFullExtent+n)+\\\" \\\"+(i.targetY+i.rightSmallArcRadius)+\\\"A\\\"+(i.rightLargeArcRadius-n)+\\\" \\\"+(i.rightSmallArcRadius-n)+\\\" 0 0 1 \\\"+i.rightInnerExtent+\\\" \\\"+(i.targetY+n)+\\\"L\\\"+i.targetX+\\\" \\\"+(i.targetY+n)+\\\"Z\\\";var r,n,i,a=e.link.source.x1,o=e.link.target.x0,s=v(a,o),l=s(t),c=s(1-t),u=e.link.y0-e.link.width/2,f=e.link.y0+e.link.width/2,h=e.link.y1-e.link.width/2,p=e.link.y1+e.link.width/2;return\\\"M\\\"+a+\\\",\\\"+u+\\\"C\\\"+l+\\\",\\\"+u+\\\" \\\"+c+\\\",\\\"+h+\\\" \\\"+o+\\\",\\\"+h+\\\"L\\\"+o+\\\",\\\"+p+\\\"C\\\"+c+\\\",\\\"+p+\\\" \\\"+l+\\\",\\\"+f+\\\" \\\"+a+\\\",\\\"+f+\\\"Z\\\"}}function x(t){t.attr(\\\"transform\\\",function(t){return\\\"translate(\\\"+t.node.x0.toFixed(3)+\\\", \\\"+t.node.y0.toFixed(3)+\\\")\\\"})}function b(t){t.call(x)}function _(t,e){t.call(b),e.attr(\\\"d\\\",y())}function w(t){t.attr(\\\"width\\\",function(t){return t.node.x1-t.node.x0}).attr(\\\"height\\\",function(t){return t.visibleHeight})}function k(t){return t.link.width>1||t.linkLineWidth>0}function T(t){return\\\"translate(\\\"+t.translateX+\\\",\\\"+t.translateY+\\\")\\\"+(t.horizontal?\\\"matrix(1 0 0 1 0 0)\\\":\\\"matrix(0 1 1 0 0 0)\\\")}function A(t){return\\\"translate(\\\"+(t.horizontal?0:t.labelY)+\\\" \\\"+(t.horizontal?t.labelY:0)+\\\")\\\"}function M(t){return i.svg.line()([[t.horizontal?t.left?-t.sizeAcross:t.visibleWidth+n.nodeTextOffsetHorizontal:n.nodeTextOffsetHorizontal,0],[t.horizontal?t.left?-n.nodeTextOffsetHorizontal:t.sizeAcross:t.visibleHeight-n.nodeTextOffsetHorizontal,0]])}function S(t){return t.horizontal?\\\"matrix(1 0 0 1 0 0)\\\":\\\"matrix(0 1 1 0 0 0)\\\"}function E(t){return t.horizontal?\\\"scale(1 1)\\\":\\\"scale(-1 1)\\\"}function C(t){return t.darkBackground&&!t.horizontal?\\\"rgb(255,255,255)\\\":\\\"rgb(0,0,0)\\\"}function L(t){return t.horizontal&&t.left?\\\"100%\\\":\\\"0%\\\"}function z(t,e,r){t.on(\\\".basic\\\",null).on(\\\"mouseover.basic\\\",function(t){t.interactionState.dragInProgress||t.partOfGroup||(r.hover(this,t,e),t.interactionState.hovered=[this,t])}).on(\\\"mousemove.basic\\\",function(t){t.interactionState.dragInProgress||t.partOfGroup||(r.follow(this,t),t.interactionState.hovered=[this,t])}).on(\\\"mouseout.basic\\\",function(t){t.interactionState.dragInProgress||t.partOfGroup||(r.unhover(this,t,e),t.interactionState.hovered=!1)}).on(\\\"click.basic\\\",function(t){t.interactionState.hovered&&(r.unhover(this,t,e),t.interactionState.hovered=!1),t.interactionState.dragInProgress||t.partOfGroup||r.select(this,t,e)})}function O(t,e,r,a){var o=i.behavior.drag().origin(function(t){return{x:t.node.x0+t.visibleWidth/2,y:t.node.y0+t.visibleHeight/2}}).on(\\\"dragstart\\\",function(i){if(\\\"fixed\\\"!==i.arrangement&&(f.ensureSingle(a._fullLayout._infolayer,\\\"g\\\",\\\"dragcover\\\",function(t){a._fullLayout._dragCover=t}),f.raiseToTop(this),i.interactionState.dragInProgress=i.node,D(i.node),i.interactionState.hovered&&(r.nodeEvents.unhover.apply(0,i.interactionState.hovered),i.interactionState.hovered=!1),\\\"snap\\\"===i.arrangement)){var o=i.traceId+\\\"|\\\"+i.key;i.forceLayouts[o]?i.forceLayouts[o].alpha(1):function(t,e,r,i){!function(t){for(var e=0;e<t.length;e++)t[e].y=(t[e].y0+t[e].y1)/2,t[e].x=(t[e].x0+t[e].x1)/2}(r.graph.nodes);var a=r.graph.nodes.filter(function(t){return t.originalX===r.node.originalX}).filter(function(t){return!t.partOfGroup});r.forceLayouts[e]=u.forceSimulation(a).alphaDecay(0).force(\\\"collide\\\",u.forceCollide().radius(function(t){return t.dy/2+r.nodePad/2}).strength(1).iterations(n.forceIterations)).force(\\\"constrain\\\",function(t,e,r,i){return function(){for(var t=0,a=0;a<r.length;a++){var o=r[a];o===i.interactionState.dragInProgress?(o.x=o.lastDraggedX,o.y=o.lastDraggedY):(o.vx=(o.originalX-o.x)/n.forceTicksPerFrame,o.y=Math.min(i.size-o.dy/2,Math.max(o.dy/2,o.y))),t=Math.max(t,Math.abs(o.vx),Math.abs(o.vy))}!i.interactionState.dragInProgress&&t<.1&&i.forceLayouts[e].alpha()>0&&i.forceLayouts[e].alpha(0)}}(0,e,a,r)).stop()}(0,o,i),function(t,e,r,i,a){window.requestAnimationFrame(function o(){var s;for(s=0;s<n.forceTicksPerFrame;s++)r.forceLayouts[i].tick();var l=r.graph.nodes;if(function(t){for(var e=0;e<t.length;e++)t[e].y0=t[e].y-t[e].dy/2,t[e].y1=t[e].y0+t[e].dy,t[e].x0=t[e].x-t[e].dx/2,t[e].x1=t[e].x0+t[e].dx}(l),r.sankey.update(r.graph),_(t.filter(P(r)),e),r.forceLayouts[i].alpha()>0)window.requestAnimationFrame(o);else{var c=r.node.originalX;r.node.x0=c-r.visibleWidth/2,r.node.x1=c+r.visibleWidth/2,I(r,a)}})}(t,e,i,o,a)}}).on(\\\"drag\\\",function(r){if(\\\"fixed\\\"!==r.arrangement){var n=i.event.x,a=i.event.y;\\\"snap\\\"===r.arrangement?(r.node.x0=n-r.visibleWidth/2,r.node.x1=n+r.visibleWidth/2,r.node.y0=a-r.visibleHeight/2,r.node.y1=a+r.visibleHeight/2):(\\\"freeform\\\"===r.arrangement&&(r.node.x0=n-r.visibleWidth/2,r.node.x1=n+r.visibleWidth/2),a=Math.max(0,Math.min(r.size-r.visibleHeight/2,a)),r.node.y0=a-r.visibleHeight/2,r.node.y1=a+r.visibleHeight/2),D(r.node),\\\"snap\\\"!==r.arrangement&&(r.sankey.update(r.graph),_(t.filter(P(r)),e))}}).on(\\\"dragend\\\",function(t){if(\\\"fixed\\\"!==t.arrangement){t.interactionState.dragInProgress=!1;for(var e=0;e<t.node.childrenNodes.length;e++)t.node.childrenNodes[e].x=t.node.x,t.node.childrenNodes[e].y=t.node.y;\\\"snap\\\"!==t.arrangement&&I(t,a)}});t.on(\\\".drag\\\",null).call(o)}function I(t,e){for(var r=[],n=[],i=0;i<t.graph.nodes.length;i++){var a=(t.graph.nodes[i].x0+t.graph.nodes[i].x1)/2,o=(t.graph.nodes[i].y0+t.graph.nodes[i].y1)/2;r.push(a/t.figure.width),n.push(o/t.figure.height)}m.call(\\\"_guiRestyle\\\",e,{\\\"node.x\\\":[r],\\\"node.y\\\":[n]},t.trace.index).then(function(){e._fullLayout._dragCover&&e._fullLayout._dragCover.remove()})}function D(t){t.lastDraggedX=t.x0+t.dx/2,t.lastDraggedY=t.y0+t.dy/2}function P(t){return function(e){return e.node.originalX===t.node.originalX}}e.exports=function(t,e,r,u,h){var v=!1;f.ensureSingle(t._fullLayout._infolayer,\\\"g\\\",\\\"first-render\\\",function(){v=!0});var m=t._fullLayout._dragCover,b=r.filter(function(t){return g(t).trace.visible}).map(function(t,e,r){var i,o=g(e),s=o.trace,u=s.domain,h=\\\"h\\\"===s.orientation,p=s.node.pad,d=s.node.thickness,v=t.width*(u.x[1]-u.x[0]),m=t.height*(u.y[1]-u.y[0]),y=o._nodes,x=o._links,b=o.circular;(i=b?c.sankeyCircular().circularLinkGap(0):l.sankey()).iterations(n.sankeyIterations).size(h?[v,m]:[m,v]).nodeWidth(d).nodePadding(p).nodeId(function(t){return t.pointNumber}).nodes(y).links(x);var _,w,k,T=i();for(var A in i.nodePadding()<p&&f.warn(\\\"node.pad was reduced to \\\",i.nodePadding(),\\\" to fit within the figure.\\\"),o._groupLookup){var M,S=parseInt(o._groupLookup[A]);for(_=0;_<T.nodes.length;_++)if(T.nodes[_].pointNumber===S){M=T.nodes[_];break}if(M){var E={pointNumber:parseInt(A),x0:M.x0,x1:M.x1,y0:M.y0,y1:M.y1,partOfGroup:!0,sourceLinks:[],targetLinks:[]};T.nodes.unshift(E),M.childrenNodes.unshift(E)}}if(function(){for(_=0;_<T.nodes.length;_++){var t,e,r=T.nodes[_],n={};for(w=0;w<r.targetLinks.length;w++)t=(e=r.targetLinks[w]).source.pointNumber+\\\":\\\"+e.target.pointNumber,n.hasOwnProperty(t)||(n[t]=[]),n[t].push(e);var i=Object.keys(n);for(w=0;w<i.length;w++){var o=n[t=i[w]],s=0,l={};for(k=0;k<o.length;k++)l[(e=o[k]).label]||(l[e.label]=0),l[e.label]+=e.value,s+=e.value;for(k=0;k<o.length;k++)(e=o[k]).flow={value:s,labelConcentration:l[e.label]/s,concentration:e.value/s,links:o},e.concentrationscale&&(e.color=a(e.concentrationscale(e.flow.labelConcentration)))}var c=0;for(w=0;w<r.sourceLinks.length;w++)c+=r.sourceLinks[w].value;for(w=0;w<r.sourceLinks.length;w++)(e=r.sourceLinks[w]).concentrationOut=e.value/c;var u=0;for(w=0;w<r.targetLinks.length;w++)u+=r.targetLinks[w].value;for(w=0;w<r.targetLinks.length;w++)(e=r.targetLinks[w]).concenrationIn=e.value/u}}(),s.node.x.length&&s.node.y.length){for(_=0;_<Math.min(s.node.x.length,s.node.y.length,T.nodes.length);_++)if(s.node.x[_]&&s.node.y[_]){var C=[s.node.x[_]*v,s.node.y[_]*m];T.nodes[_].x0=C[0]-d/2,T.nodes[_].x1=C[0]+d/2;var L=T.nodes[_].y1-T.nodes[_].y0;T.nodes[_].y0=C[1]-L/2,T.nodes[_].y1=C[1]+L/2}\\\"snap\\\"===s.arrangement&&function(t){t.forEach(function(t){var e,r,n,i=0,a=t.length;for(t.sort(function(t,e){return t.y0-e.y0}),n=0;n<a;++n)(e=t[n]).y0>=i||(r=i-e.y0)>1e-6&&(e.y0+=r,e.y1+=r),i=e.y1+p})}(function(t){var e,r,n=t.map(function(t,e){return{x0:t.x0,index:e}}).sort(function(t,e){return t.x0-e.x0}),i=[],a=-1,o=-1/0;for(_=0;_<n.length;_++){var s=t[n[_].index];s.x0>o+d&&(a+=1,e=s.x0),o=s.x0,i[a]||(i[a]=[]),i[a].push(s),r=e-s.x0,s.x0+=r,s.x1+=r}return i}(y=T.nodes)),i.update(T)}return{circular:b,key:r,trace:s,guid:f.randstr(),horizontal:h,width:v,height:m,nodePad:s.node.pad,nodeLineColor:s.node.line.color,nodeLineWidth:s.node.line.width,linkLineColor:s.link.line.color,linkLineWidth:s.link.line.width,valueFormat:s.valueformat,valueSuffix:s.valuesuffix,textFont:s.textfont,translateX:u.x[0]*t.width+t.margin.l,translateY:t.height-u.y[1]*t.height+t.margin.t,dragParallel:h?m:v,dragPerpendicular:h?v:m,arrangement:s.arrangement,sankey:i,graph:T,forceLayouts:{},interactionState:{dragInProgress:!1,hovered:!1}}}.bind(null,u)),_=e.selectAll(\\\".\\\"+n.cn.sankey).data(b,p);_.exit().remove(),_.enter().append(\\\"g\\\").classed(n.cn.sankey,!0).style(\\\"box-sizing\\\",\\\"content-box\\\").style(\\\"position\\\",\\\"absolute\\\").style(\\\"left\\\",0).style(\\\"shape-rendering\\\",\\\"geometricPrecision\\\").style(\\\"pointer-events\\\",\\\"auto\\\").attr(\\\"transform\\\",T),_.each(function(e,r){t._fullData[r]._sankey=e;var n=\\\"bgsankey-\\\"+e.trace.uid+\\\"-\\\"+r;f.ensureSingle(t._fullLayout._draggers,\\\"rect\\\",n),t._fullData[r]._bgRect=i.select(\\\".\\\"+n),t._fullData[r]._bgRect.style(\\\"pointer-events\\\",\\\"all\\\").attr(\\\"width\\\",e.width).attr(\\\"height\\\",e.height).attr(\\\"x\\\",e.translateX).attr(\\\"y\\\",e.translateY).classed(\\\"bgsankey\\\",!0).style({fill:\\\"transparent\\\",\\\"stroke-width\\\":0})}),_.transition().ease(n.ease).duration(n.duration).attr(\\\"transform\\\",T);var I=_.selectAll(\\\".\\\"+n.cn.sankeyLinks).data(d,p);I.enter().append(\\\"g\\\").classed(n.cn.sankeyLinks,!0).style(\\\"fill\\\",\\\"none\\\");var D=I.selectAll(\\\".\\\"+n.cn.sankeyLink).data(function(t){return t.graph.links.filter(function(t){return t.value}).map(function(t,e,r){var n=a(e.color),i=e.source.label+\\\"|\\\"+e.target.label+\\\"__\\\"+r;return e.trace=t.trace,e.curveNumber=t.trace.index,{circular:t.circular,key:i,traceId:t.key,pointNumber:e.pointNumber,link:e,tinyColorHue:o.tinyRGB(n),tinyColorAlpha:n.getAlpha(),linkPath:y,linkLineColor:t.linkLineColor,linkLineWidth:t.linkLineWidth,valueFormat:t.valueFormat,valueSuffix:t.valueSuffix,sankey:t.sankey,parent:t,interactionState:t.interactionState,flow:e.flow}}.bind(null,t))},p);D.enter().append(\\\"path\\\").classed(n.cn.sankeyLink,!0).call(z,_,h.linkEvents),D.style(\\\"stroke\\\",function(t){return k(t)?o.tinyRGB(a(t.linkLineColor)):t.tinyColorHue}).style(\\\"stroke-opacity\\\",function(t){return k(t)?o.opacity(t.linkLineColor):t.tinyColorAlpha}).style(\\\"fill\\\",function(t){return t.tinyColorHue}).style(\\\"fill-opacity\\\",function(t){return t.tinyColorAlpha}).style(\\\"stroke-width\\\",function(t){return k(t)?t.linkLineWidth:1}).attr(\\\"d\\\",y()),D.style(\\\"opacity\\\",function(){return t._context.staticPlot||v||m?1:0}).transition().ease(n.ease).duration(n.duration).style(\\\"opacity\\\",1),D.exit().transition().ease(n.ease).duration(n.duration).style(\\\"opacity\\\",0).remove();var P=_.selectAll(\\\".\\\"+n.cn.sankeyNodeSet).data(d,p);P.enter().append(\\\"g\\\").classed(n.cn.sankeyNodeSet,!0),P.style(\\\"cursor\\\",function(t){switch(t.arrangement){case\\\"fixed\\\":return\\\"default\\\";case\\\"perpendicular\\\":return\\\"ns-resize\\\";default:return\\\"move\\\"}});var R=P.selectAll(\\\".\\\"+n.cn.sankeyNode).data(function(t){var e=t.graph.nodes;return function(t){var e,r=[];for(e=0;e<t.length;e++)t[e].originalX=(t[e].x0+t[e].x1)/2,t[e].originalY=(t[e].y0+t[e].y1)/2,-1===r.indexOf(t[e].originalX)&&r.push(t[e].originalX);for(r.sort(function(t,e){return t-e}),e=0;e<t.length;e++)t[e].originalLayerIndex=r.indexOf(t[e].originalX),t[e].originalLayer=t[e].originalLayerIndex/(r.length-1)}(e),e.map(function(t,e){var r=a(e.color),i=n.nodePadAcross,s=t.nodePad/2;e.dx=e.x1-e.x0,e.dy=e.y1-e.y0;var l=e.dx,c=Math.max(.5,e.dy),u=\\\"node_\\\"+e.pointNumber;return e.group&&(u=f.randstr()),e.trace=t.trace,e.curveNumber=t.trace.index,{index:e.pointNumber,key:u,partOfGroup:e.partOfGroup||!1,group:e.group,traceId:t.key,trace:t.trace,node:e,nodePad:t.nodePad,nodeLineColor:t.nodeLineColor,nodeLineWidth:t.nodeLineWidth,textFont:t.textFont,size:t.horizontal?t.height:t.width,visibleWidth:Math.ceil(l),visibleHeight:c,zoneX:-i,zoneY:-s,zoneWidth:l+2*i,zoneHeight:c+2*s,labelY:t.horizontal?e.dy/2+1:e.dx/2+1,left:1===e.originalLayer,sizeAcross:t.width,forceLayouts:t.forceLayouts,horizontal:t.horizontal,darkBackground:r.getBrightness()<=128,tinyColorHue:o.tinyRGB(r),tinyColorAlpha:r.getAlpha(),valueFormat:t.valueFormat,valueSuffix:t.valueSuffix,sankey:t.sankey,graph:t.graph,arrangement:t.arrangement,uniqueNodeLabelPathId:[t.guid,t.key,u].join(\\\"_\\\"),interactionState:t.interactionState,figure:t}}.bind(null,t))},p);R.enter().append(\\\"g\\\").classed(n.cn.sankeyNode,!0).call(x).style(\\\"opacity\\\",function(e){return!t._context.staticPlot&&!v||e.partOfGroup?0:1}),R.call(z,_,h.nodeEvents).call(O,D,h,t),R.transition().ease(n.ease).duration(n.duration).call(x).style(\\\"opacity\\\",function(t){return t.partOfGroup?0:1}),R.exit().transition().ease(n.ease).duration(n.duration).style(\\\"opacity\\\",0).remove();var F=R.selectAll(\\\".\\\"+n.cn.nodeRect).data(d);F.enter().append(\\\"rect\\\").classed(n.cn.nodeRect,!0).call(w),F.style(\\\"stroke-width\\\",function(t){return t.nodeLineWidth}).style(\\\"stroke\\\",function(t){return o.tinyRGB(a(t.nodeLineColor))}).style(\\\"stroke-opacity\\\",function(t){return o.opacity(t.nodeLineColor)}).style(\\\"fill\\\",function(t){return t.tinyColorHue}).style(\\\"fill-opacity\\\",function(t){return t.tinyColorAlpha}),F.transition().ease(n.ease).duration(n.duration).call(w);var B=R.selectAll(\\\".\\\"+n.cn.nodeCapture).data(d);B.enter().append(\\\"rect\\\").classed(n.cn.nodeCapture,!0).style(\\\"fill-opacity\\\",0),B.attr(\\\"x\\\",function(t){return t.zoneX}).attr(\\\"y\\\",function(t){return t.zoneY}).attr(\\\"width\\\",function(t){return t.zoneWidth}).attr(\\\"height\\\",function(t){return t.zoneHeight});var N=R.selectAll(\\\".\\\"+n.cn.nodeCentered).data(d);N.enter().append(\\\"g\\\").classed(n.cn.nodeCentered,!0).attr(\\\"transform\\\",A),N.transition().ease(n.ease).duration(n.duration).attr(\\\"transform\\\",A);var j=N.selectAll(\\\".\\\"+n.cn.nodeLabelGuide).data(d);j.enter().append(\\\"path\\\").classed(n.cn.nodeLabelGuide,!0).attr(\\\"id\\\",function(t){return t.uniqueNodeLabelPathId}).attr(\\\"d\\\",M).attr(\\\"transform\\\",S),j.transition().ease(n.ease).duration(n.duration).attr(\\\"d\\\",M).attr(\\\"transform\\\",S);var V=N.selectAll(\\\".\\\"+n.cn.nodeLabel).data(d);V.enter().append(\\\"text\\\").classed(n.cn.nodeLabel,!0).attr(\\\"transform\\\",E).style(\\\"user-select\\\",\\\"none\\\").style(\\\"cursor\\\",\\\"default\\\").style(\\\"fill\\\",\\\"black\\\"),V.style(\\\"text-shadow\\\",function(t){return t.horizontal?\\\"-1px 1px 1px #fff, 1px 1px 1px #fff, 1px -1px 1px #fff, -1px -1px 1px #fff\\\":\\\"none\\\"}).each(function(t){s.font(V,t.textFont)}),V.transition().ease(n.ease).duration(n.duration).attr(\\\"transform\\\",E);var U=V.selectAll(\\\".\\\"+n.cn.nodeLabelTextPath).data(d);U.enter().append(\\\"textPath\\\").classed(n.cn.nodeLabelTextPath,!0).attr(\\\"alignment-baseline\\\",\\\"middle\\\").attr(\\\"xlink:href\\\",function(t){return\\\"#\\\"+t.uniqueNodeLabelPathId}).attr(\\\"startOffset\\\",L).style(\\\"fill\\\",C),U.text(function(t){return t.horizontal||t.node.dy>5?t.node.label:\\\"\\\"}).attr(\\\"text-anchor\\\",function(t){return t.horizontal&&t.left?\\\"end\\\":\\\"start\\\"}),U.transition().ease(n.ease).duration(n.duration).attr(\\\"startOffset\\\",L).style(\\\"fill\\\",C)}},{\\\"../../components/color\\\":580,\\\"../../components/drawing\\\":601,\\\"../../lib\\\":703,\\\"../../lib/gup\\\":701,\\\"../../registry\\\":831,\\\"./constants\\\":1068,\\\"@plotly/d3-sankey\\\":51,d3:157,\\\"d3-force\\\":149,\\\"d3-interpolate\\\":151,\\\"d3-sankey-circular\\\":154,tinycolor2:524}],1073:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){for(var r=[],n=t.cd[0].trace,i=n._sankey.graph.nodes,a=0;a<i.length;a++){var o=i[a];if(!o.partOfGroup){var s=[(o.x0+o.x1)/2,(o.y0+o.y1)/2];\\\"v\\\"===n.orientation&&s.reverse(),e&&e.contains(s,!1,a,t)&&r.push({pointNumber:o.pointNumber})}}return r}},{}],1074:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\");e.exports=function(t,e){for(var r=0;r<t.length;r++)t[r].i=r;n.mergeArray(e.text,t,\\\"tx\\\"),n.mergeArray(e.hovertext,t,\\\"htx\\\"),n.mergeArray(e.customdata,t,\\\"data\\\"),n.mergeArray(e.textposition,t,\\\"tp\\\"),e.textfont&&(n.mergeArray(e.textfont.size,t,\\\"ts\\\"),n.mergeArray(e.textfont.color,t,\\\"tc\\\"),n.mergeArray(e.textfont.family,t,\\\"tf\\\"));var i=e.marker;if(i){n.mergeArray(i.size,t,\\\"ms\\\"),n.mergeArray(i.opacity,t,\\\"mo\\\"),n.mergeArray(i.symbol,t,\\\"mx\\\"),n.mergeArray(i.color,t,\\\"mc\\\");var a=i.line;i.line&&(n.mergeArray(a.color,t,\\\"mlc\\\"),n.mergeArray(a.width,t,\\\"mlw\\\"));var o=i.gradient;o&&\\\"none\\\"!==o.type&&(n.mergeArray(o.type,t,\\\"mgt\\\"),n.mergeArray(o.color,t,\\\"mgc\\\"))}}},{\\\"../../lib\\\":703}],1075:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/fx/hovertemplate_attributes\\\"),i=t(\\\"../../components/colorscale/attributes\\\"),a=t(\\\"../../plots/font_attributes\\\"),o=t(\\\"../../components/drawing/attributes\\\").dash,s=t(\\\"../../components/drawing\\\"),l=t(\\\"./constants\\\"),c=t(\\\"../../lib/extend\\\").extendFlat;e.exports={x:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\",anim:!0},x0:{valType:\\\"any\\\",dflt:0,editType:\\\"calc+clearAxisTypes\\\",anim:!0},dx:{valType:\\\"number\\\",dflt:1,editType:\\\"calc\\\",anim:!0},y:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\",anim:!0},y0:{valType:\\\"any\\\",dflt:0,editType:\\\"calc+clearAxisTypes\\\",anim:!0},dy:{valType:\\\"number\\\",dflt:1,editType:\\\"calc\\\",anim:!0},stackgroup:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"calc\\\"},orientation:{valType:\\\"enumerated\\\",values:[\\\"v\\\",\\\"h\\\"],editType:\\\"calc\\\"},groupnorm:{valType:\\\"enumerated\\\",values:[\\\"\\\",\\\"fraction\\\",\\\"percent\\\"],dflt:\\\"\\\",editType:\\\"calc\\\"},stackgaps:{valType:\\\"enumerated\\\",values:[\\\"infer zero\\\",\\\"interpolate\\\"],dflt:\\\"infer zero\\\",editType:\\\"calc\\\"},text:{valType:\\\"string\\\",dflt:\\\"\\\",arrayOk:!0,editType:\\\"calc\\\"},hovertext:{valType:\\\"string\\\",dflt:\\\"\\\",arrayOk:!0,editType:\\\"style\\\"},mode:{valType:\\\"flaglist\\\",flags:[\\\"lines\\\",\\\"markers\\\",\\\"text\\\"],extras:[\\\"none\\\"],editType:\\\"calc\\\"},hoveron:{valType:\\\"flaglist\\\",flags:[\\\"points\\\",\\\"fills\\\"],editType:\\\"style\\\"},hovertemplate:n({},{keys:l.eventDataKeys}),line:{color:{valType:\\\"color\\\",editType:\\\"style\\\",anim:!0},width:{valType:\\\"number\\\",min:0,dflt:2,editType:\\\"style\\\",anim:!0},shape:{valType:\\\"enumerated\\\",values:[\\\"linear\\\",\\\"spline\\\",\\\"hv\\\",\\\"vh\\\",\\\"hvh\\\",\\\"vhv\\\"],dflt:\\\"linear\\\",editType:\\\"plot\\\"},smoothing:{valType:\\\"number\\\",min:0,max:1.3,dflt:1,editType:\\\"plot\\\"},dash:c({},o,{editType:\\\"style\\\"}),simplify:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"plot\\\"},editType:\\\"plot\\\"},connectgaps:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"calc\\\"},cliponaxis:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"plot\\\"},fill:{valType:\\\"enumerated\\\",values:[\\\"none\\\",\\\"tozeroy\\\",\\\"tozerox\\\",\\\"tonexty\\\",\\\"tonextx\\\",\\\"toself\\\",\\\"tonext\\\"],editType:\\\"calc\\\"},fillcolor:{valType:\\\"color\\\",editType:\\\"style\\\",anim:!0},marker:c({symbol:{valType:\\\"enumerated\\\",values:s.symbolList,dflt:\\\"circle\\\",arrayOk:!0,editType:\\\"style\\\"},opacity:{valType:\\\"number\\\",min:0,max:1,arrayOk:!0,editType:\\\"style\\\",anim:!0},size:{valType:\\\"number\\\",min:0,dflt:6,arrayOk:!0,editType:\\\"calc\\\",anim:!0},maxdisplayed:{valType:\\\"number\\\",min:0,dflt:0,editType:\\\"plot\\\"},sizeref:{valType:\\\"number\\\",dflt:1,editType:\\\"calc\\\"},sizemin:{valType:\\\"number\\\",min:0,dflt:0,editType:\\\"calc\\\"},sizemode:{valType:\\\"enumerated\\\",values:[\\\"diameter\\\",\\\"area\\\"],dflt:\\\"diameter\\\",editType:\\\"calc\\\"},line:c({width:{valType:\\\"number\\\",min:0,arrayOk:!0,editType:\\\"style\\\",anim:!0},editType:\\\"calc\\\"},i(\\\"marker.line\\\",{anim:!0})),gradient:{type:{valType:\\\"enumerated\\\",values:[\\\"radial\\\",\\\"horizontal\\\",\\\"vertical\\\",\\\"none\\\"],arrayOk:!0,dflt:\\\"none\\\",editType:\\\"calc\\\"},color:{valType:\\\"color\\\",arrayOk:!0,editType:\\\"calc\\\"},editType:\\\"calc\\\"},editType:\\\"calc\\\"},i(\\\"marker\\\",{anim:!0})),selected:{marker:{opacity:{valType:\\\"number\\\",min:0,max:1,editType:\\\"style\\\"},color:{valType:\\\"color\\\",editType:\\\"style\\\"},size:{valType:\\\"number\\\",min:0,editType:\\\"style\\\"},editType:\\\"style\\\"},textfont:{color:{valType:\\\"color\\\",editType:\\\"style\\\"},editType:\\\"style\\\"},editType:\\\"style\\\"},unselected:{marker:{opacity:{valType:\\\"number\\\",min:0,max:1,editType:\\\"style\\\"},color:{valType:\\\"color\\\",editType:\\\"style\\\"},size:{valType:\\\"number\\\",min:0,editType:\\\"style\\\"},editType:\\\"style\\\"},textfont:{color:{valType:\\\"color\\\",editType:\\\"style\\\"},editType:\\\"style\\\"},editType:\\\"style\\\"},textposition:{valType:\\\"enumerated\\\",values:[\\\"top left\\\",\\\"top center\\\",\\\"top right\\\",\\\"middle left\\\",\\\"middle center\\\",\\\"middle right\\\",\\\"bottom left\\\",\\\"bottom center\\\",\\\"bottom right\\\"],dflt:\\\"middle center\\\",arrayOk:!0,editType:\\\"calc\\\"},textfont:a({editType:\\\"calc\\\",colorEditType:\\\"style\\\",arrayOk:!0}),r:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},t:{valType:\\\"data_array\\\",editType:\\\"calc\\\"}}},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/drawing\\\":601,\\\"../../components/drawing/attributes\\\":600,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plots/font_attributes\\\":777,\\\"./constants\\\":1079}],1076:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../plots/cartesian/axes\\\"),o=t(\\\"../../constants/numerical\\\").BADNUM,s=t(\\\"./subtypes\\\"),l=t(\\\"./colorscale_calc\\\"),c=t(\\\"./arrays_to_calcdata\\\"),u=t(\\\"./calc_selection\\\");function f(t,e,r,n,i,o,l){var c=e._length,u=t._fullLayout,f=r._id,h=n._id,p=u._firstScatter[d(e)]===e.uid,v=(g(e,u,r,n)||{}).orientation,m=e.fill;r._minDtick=0,n._minDtick=0;var y={padded:!0},x={padded:!0};l&&(y.ppad=x.ppad=l);var b=c<2||i[0]!==i[c-1]||o[0]!==o[c-1];b&&(\\\"tozerox\\\"===m||\\\"tonextx\\\"===m&&(p||\\\"h\\\"===v))?y.tozero=!0:(e.error_y||{}).visible||\\\"tonexty\\\"!==m&&\\\"tozeroy\\\"!==m&&(s.hasMarkers(e)||s.hasText(e))||(y.padded=!1,y.ppad=0),b&&(\\\"tozeroy\\\"===m||\\\"tonexty\\\"===m&&(p||\\\"v\\\"===v))?x.tozero=!0:\\\"tonextx\\\"!==m&&\\\"tozerox\\\"!==m||(x.padded=!1),f&&(e._extremes[f]=a.findExtremes(r,i,y)),h&&(e._extremes[h]=a.findExtremes(n,o,x))}function h(t,e){if(s.hasMarkers(t)){var r,n=t.marker,o=1.6*(t.marker.sizeref||1);if(r=\\\"area\\\"===t.marker.sizemode?function(t){return Math.max(Math.sqrt((t||0)/o),3)}:function(t){return Math.max((t||0)/o,3)},i.isArrayOrTypedArray(n.size)){var l={type:\\\"linear\\\"};a.setConvert(l);for(var c=l.makeCalcdata(t.marker,\\\"size\\\"),u=new Array(e),f=0;f<e;f++)u[f]=r(c[f]);return u}return r(n.size)}}function p(t,e){var r=d(e),n=t._firstScatter;n[r]||(n[r]=e.uid)}function d(t){var e=t.stackgroup;return t.xaxis+t.yaxis+t.type+(e?\\\"-\\\"+e:\\\"\\\")}function g(t,e,r,n){var i=t.stackgroup;if(i){var a=e._scatterStackOpts[r._id+n._id][i],o=\\\"v\\\"===a.orientation?n:r;return\\\"linear\\\"===o.type||\\\"log\\\"===o.type?a:void 0}}e.exports={calc:function(t,e){var r,s,d,v,m,y,x=t._fullLayout,b=a.getFromId(t,e.xaxis||\\\"x\\\"),_=a.getFromId(t,e.yaxis||\\\"y\\\"),w=b.makeCalcdata(e,\\\"x\\\"),k=_.makeCalcdata(e,\\\"y\\\"),T=e._length,A=new Array(T),M=e.ids,S=g(e,x,b,_),E=!1;p(x,e);var C,L=\\\"x\\\",z=\\\"y\\\";for(S?(i.pushUnique(S.traceIndices,e._expandedIndex),(r=\\\"v\\\"===S.orientation)?(z=\\\"s\\\",C=\\\"x\\\"):(L=\\\"s\\\",C=\\\"y\\\"),m=\\\"interpolate\\\"===S.stackgaps):f(t,e,b,_,w,k,h(e,T)),s=0;s<T;s++){var O=A[s]={},I=n(w[s]),D=n(k[s]);I&&D?(O[L]=w[s],O[z]=k[s]):S&&(r?I:D)?(O[C]=r?w[s]:k[s],O.gap=!0,m?(O.s=o,E=!0):O.s=0):O[L]=O[z]=o,M&&(O.id=String(M[s]))}if(c(A,e),l(t,e),u(A,e),S){for(s=0;s<A.length;)A[s][C]===o?A.splice(s,1):s++;if(i.sort(A,function(t,e){return t[C]-e[C]||t.i-e.i}),E){for(s=0;s<A.length-1&&A[s].gap;)s++;for((y=A[s].s)||(y=A[s].s=0),d=0;d<s;d++)A[d].s=y;for(v=A.length-1;v>s&&A[v].gap;)v--;for(y=A[v].s,d=A.length-1;d>v;d--)A[d].s=y;for(;s<v;)if(A[++s].gap){for(d=s+1;A[d].gap;)d++;for(var P=A[s-1][C],R=A[s-1].s,F=(A[d].s-R)/(A[d][C]-P);s<d;)A[s].s=R+(A[s][C]-P)*F,s++}}}return A},calcMarkerSize:h,calcAxisExpansion:f,setFirstScatter:p,getStackOpts:g}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"./arrays_to_calcdata\\\":1074,\\\"./calc_selection\\\":1077,\\\"./colorscale_calc\\\":1078,\\\"./subtypes\\\":1098,\\\"fast-isnumeric\\\":224}],1077:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\");e.exports=function(t,e){n.isArrayOrTypedArray(e.selectedpoints)&&n.tagSelected(t,e)}},{\\\"../../lib\\\":703}],1078:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale/helpers\\\").hasColorscale,i=t(\\\"../../components/colorscale/calc\\\"),a=t(\\\"./subtypes\\\");e.exports=function(t,e){a.hasLines(e)&&n(e,\\\"line\\\")&&i(t,e,{vals:e.line.color,containerStr:\\\"line\\\",cLetter:\\\"c\\\"}),a.hasMarkers(e)&&(n(e,\\\"marker\\\")&&i(t,e,{vals:e.marker.color,containerStr:\\\"marker\\\",cLetter:\\\"c\\\"}),n(e,\\\"marker.line\\\")&&i(t,e,{vals:e.marker.line.color,containerStr:\\\"marker.line\\\",cLetter:\\\"c\\\"}))}},{\\\"../../components/colorscale/calc\\\":588,\\\"../../components/colorscale/helpers\\\":591,\\\"./subtypes\\\":1098}],1079:[function(t,e,r){\\\"use strict\\\";e.exports={PTS_LINESONLY:20,minTolerance:.2,toleranceGrowth:10,maxScreensAway:20,eventDataKeys:[]}},{}],1080:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./calc\\\");function i(t,e,r,n,i,a,o){i[n]=!0;var s={i:null,gap:!0,s:0};if(s[o]=r,t.splice(e,0,s),e&&r===t[e-1][o]){var l=t[e-1];s.s=l.s,s.i=l.i,s.gap=l.gap}else a&&(s.s=function(t,e,r,n){var i=t[e-1],a=t[e+1];return a?i?i.s+(a.s-i.s)*(r-i[n])/(a[n]-i[n]):a.s:i.s}(t,e,r,o));e||(t[0].t=t[1].t,t[0].trace=t[1].trace,delete t[1].t,delete t[1].trace)}e.exports=function(t,e){var r=e.xaxis,a=e.yaxis,o=r._id+a._id,s=t._fullLayout._scatterStackOpts[o];if(s){var l,c,u,f,h,p,d,g,v,m,y,x,b,_,w,k=t.calcdata;for(var T in s){var A=(m=s[T]).traceIndices;if(A.length){for(y=\\\"interpolate\\\"===m.stackgaps,x=m.groupnorm,\\\"v\\\"===m.orientation?(b=\\\"x\\\",_=\\\"y\\\"):(b=\\\"y\\\",_=\\\"x\\\"),w=new Array(A.length),l=0;l<w.length;l++)w[l]=!1;p=k[A[0]];var M=new Array(p.length);for(l=0;l<p.length;l++)M[l]=p[l][b];for(l=1;l<A.length;l++){for(h=k[A[l]],c=u=0;c<h.length;c++){for(d=h[c][b];d>M[u]&&u<M.length;u++)i(h,c,M[u],l,w,y,b),c++;if(d!==M[u]){for(f=0;f<l;f++)i(k[A[f]],u,d,f,w,y,b);M.splice(u,0,d)}u++}for(;u<M.length;u++)i(h,c,M[u],l,w,y,b),c++}var S=M.length;for(c=0;c<p.length;c++){for(g=p[c][_]=p[c].s,l=1;l<A.length;l++)(h=k[A[l]])[0].trace._rawLength=h[0].trace._length,h[0].trace._length=S,g+=h[c].s,h[c][_]=g;if(x)for(v=(\\\"fraction\\\"===x?g:g/100)||1,l=0;l<A.length;l++){var E=k[A[l]][c];E[_]/=v,E.sNorm=E.s/v}}for(l=0;l<A.length;l++){var C=(h=k[A[l]])[0].trace,L=n.calcMarkerSize(C,C._rawLength),z=Array.isArray(L);if(L&&w[l]||z){var O=L;for(L=new Array(S),c=0;c<S;c++)L[c]=h[c].gap?0:z?O[h[c].i]:O}var I=new Array(S),D=new Array(S);for(c=0;c<S;c++)I[c]=h[c].x,D[c]=h[c].y;n.calcAxisExpansion(t,C,r,a,I,D,L),h[0].t.orientation=m.orientation}}}}}},{\\\"./calc\\\":1076}],1081:[function(t,e,r){\\\"use strict\\\";e.exports=function(t){for(var e=0;e<t.length;e++){var r=t[e];if(\\\"scatter\\\"===r.type){var n=r.fill;if(\\\"none\\\"!==n&&\\\"toself\\\"!==n&&(r.opacity=void 0,\\\"tonexty\\\"===n||\\\"tonextx\\\"===n))for(var i=e-1;i>=0;i--){var a=t[i];if(\\\"scatter\\\"===a.type&&a.xaxis===r.xaxis&&a.yaxis===r.yaxis){a.opacity=void 0;break}}}}}},{}],1082:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"./attributes\\\"),o=t(\\\"./constants\\\"),s=t(\\\"./subtypes\\\"),l=t(\\\"./xy_defaults\\\"),c=t(\\\"./stack_defaults\\\"),u=t(\\\"./marker_defaults\\\"),f=t(\\\"./line_defaults\\\"),h=t(\\\"./line_shape_defaults\\\"),p=t(\\\"./text_defaults\\\"),d=t(\\\"./fillcolor_defaults\\\");e.exports=function(t,e,r,g){function v(r,i){return n.coerce(t,e,a,r,i)}var m=l(t,e,g,v);if(m||(e.visible=!1),e.visible){var y=c(t,e,g,v),x=!y&&m<o.PTS_LINESONLY?\\\"lines+markers\\\":\\\"lines\\\";v(\\\"text\\\"),v(\\\"hovertext\\\"),v(\\\"mode\\\",x),s.hasLines(e)&&(f(t,e,r,g,v),h(t,e,v),v(\\\"connectgaps\\\"),v(\\\"line.simplify\\\")),s.hasMarkers(e)&&u(t,e,r,g,v,{gradient:!0}),s.hasText(e)&&p(t,e,g,v);var b=[];(s.hasMarkers(e)||s.hasText(e))&&(v(\\\"cliponaxis\\\"),v(\\\"marker.maxdisplayed\\\"),b.push(\\\"points\\\")),v(\\\"fill\\\",y?y.fillDflt:\\\"none\\\"),\\\"none\\\"!==e.fill&&(d(t,e,r,v),s.hasLines(e)||h(t,e,v));var _=(e.line||{}).color,w=(e.marker||{}).color;\\\"tonext\\\"!==e.fill&&\\\"toself\\\"!==e.fill||b.push(\\\"fills\\\"),v(\\\"hoveron\\\",b.join(\\\"+\\\")||\\\"points\\\"),\\\"fills\\\"!==e.hoveron&&v(\\\"hovertemplate\\\");var k=i.getComponentMethod(\\\"errorbars\\\",\\\"supplyDefaults\\\");k(t,e,_||w||r,{axis:\\\"y\\\"}),k(t,e,_||w||r,{axis:\\\"x\\\",inherit:\\\"y\\\"}),n.coerceSelectionMarkerOpacity(e,v)}}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"./attributes\\\":1075,\\\"./constants\\\":1079,\\\"./fillcolor_defaults\\\":1083,\\\"./line_defaults\\\":1087,\\\"./line_shape_defaults\\\":1089,\\\"./marker_defaults\\\":1093,\\\"./stack_defaults\\\":1096,\\\"./subtypes\\\":1098,\\\"./text_defaults\\\":1099,\\\"./xy_defaults\\\":1100}],1083:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/color\\\"),i=t(\\\"../../lib\\\").isArrayOrTypedArray;e.exports=function(t,e,r,a){var o=!1;if(e.marker){var s=e.marker.color,l=(e.marker.line||{}).color;s&&!i(s)?o=s:l&&!i(l)&&(o=l)}a(\\\"fillcolor\\\",n.addOpacity((e.line||{}).color||o||r,.5))}},{\\\"../../components/color\\\":580,\\\"../../lib\\\":703}],1084:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/color\\\"),i=t(\\\"./subtypes\\\");e.exports=function(t,e){var r,a;if(\\\"lines\\\"===t.mode)return(r=t.line.color)&&n.opacity(r)?r:t.fillcolor;if(\\\"none\\\"===t.mode)return t.fill?t.fillcolor:\\\"\\\";var o=e.mcc||(t.marker||{}).color,s=e.mlcc||((t.marker||{}).line||{}).color;return(a=o&&n.opacity(o)?o:s&&n.opacity(s)&&(e.mlw||((t.marker||{}).line||{}).width)?s:\\\"\\\")?n.opacity(a)<.3?n.addOpacity(a,.3):a:(r=(t.line||{}).color)&&n.opacity(r)&&i.hasLines(t)&&t.line.width?r:t.fillcolor}},{\\\"../../components/color\\\":580,\\\"./subtypes\\\":1098}],1085:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../components/fx\\\"),a=t(\\\"../../registry\\\"),o=t(\\\"./get_trace_color\\\"),s=t(\\\"../../components/color\\\"),l=n.fillText;e.exports=function(t,e,r,c){var u=t.cd,f=u[0].trace,h=t.xa,p=t.ya,d=h.c2p(e),g=p.c2p(r),v=[d,g],m=f.hoveron||\\\"\\\",y=-1!==f.mode.indexOf(\\\"markers\\\")?3:.5;if(-1!==m.indexOf(\\\"points\\\")){var x=function(t){var e=Math.max(y,t.mrc||0),r=h.c2p(t.x)-d,n=p.c2p(t.y)-g;return Math.max(Math.sqrt(r*r+n*n)-e,1-y/e)},b=i.getDistanceFunction(c,function(t){var e=Math.max(3,t.mrc||0),r=1-1/e,n=Math.abs(h.c2p(t.x)-d);return n<e?r*n/e:n-e+r},function(t){var e=Math.max(3,t.mrc||0),r=1-1/e,n=Math.abs(p.c2p(t.y)-g);return n<e?r*n/e:n-e+r},x);if(i.getClosest(u,b,t),!1!==t.index){var _=u[t.index],w=h.c2p(_.x,!0),k=p.c2p(_.y,!0),T=_.mrc||1;t.index=_.i;var A=u[0].t.orientation,M=A&&(_.sNorm||_.s),S=\\\"h\\\"===A?M:_.x,E=\\\"v\\\"===A?M:_.y;return n.extendFlat(t,{color:o(f,_),x0:w-T,x1:w+T,xLabelVal:S,y0:k-T,y1:k+T,yLabelVal:E,spikeDistance:x(_),hovertemplate:f.hovertemplate}),l(_,f,t),a.getComponentMethod(\\\"errorbars\\\",\\\"hoverInfo\\\")(_,f,t),[t]}}if(-1!==m.indexOf(\\\"fills\\\")&&f._polygons){var C,L,z,O,I,D,P,R,F,B=f._polygons,N=[],j=!1,V=1/0,U=-1/0,H=1/0,q=-1/0;for(C=0;C<B.length;C++)(z=B[C]).contains(v)&&(j=!j,N.push(z),H=Math.min(H,z.ymin),q=Math.max(q,z.ymax));if(j){var G=((H=Math.max(H,0))+(q=Math.min(q,p._length)))/2;for(C=0;C<N.length;C++)for(O=N[C].pts,L=1;L<O.length;L++)(R=O[L-1][1])>G!=(F=O[L][1])>=G&&(D=O[L-1][0],P=O[L][0],F-R&&(I=D+(P-D)*(G-R)/(F-R),V=Math.min(V,I),U=Math.max(U,I)));V=Math.max(V,0),U=Math.min(U,h._length);var Y=s.defaultLine;return s.opacity(f.fillcolor)?Y=f.fillcolor:s.opacity((f.line||{}).color)&&(Y=f.line.color),n.extendFlat(t,{distance:t.maxHoverDistance,x0:V,x1:U,y0:G,y1:G,color:Y,hovertemplate:!1}),delete t.index,f.text&&!Array.isArray(f.text)?t.text=String(f.text):t.text=f.name,[t]}}}},{\\\"../../components/color\\\":580,\\\"../../components/fx\\\":619,\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"./get_trace_color\\\":1084}],1086:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./subtypes\\\");e.exports={hasLines:n.hasLines,hasMarkers:n.hasMarkers,hasText:n.hasText,isBubble:n.isBubble,attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),crossTraceDefaults:t(\\\"./cross_trace_defaults\\\"),calc:t(\\\"./calc\\\").calc,crossTraceCalc:t(\\\"./cross_trace_calc\\\"),arraysToCalcdata:t(\\\"./arrays_to_calcdata\\\"),plot:t(\\\"./plot\\\"),colorbar:t(\\\"./marker_colorbar\\\"),style:t(\\\"./style\\\").style,styleOnSelect:t(\\\"./style\\\").styleOnSelect,hoverPoints:t(\\\"./hover\\\"),selectPoints:t(\\\"./select\\\"),animatable:!0,moduleType:\\\"trace\\\",name:\\\"scatter\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"cartesian\\\",\\\"svg\\\",\\\"symbols\\\",\\\"errorBarsOK\\\",\\\"showLegend\\\",\\\"scatter-like\\\",\\\"zoomScale\\\"],meta:{}}},{\\\"../../plots/cartesian\\\":762,\\\"./arrays_to_calcdata\\\":1074,\\\"./attributes\\\":1075,\\\"./calc\\\":1076,\\\"./cross_trace_calc\\\":1080,\\\"./cross_trace_defaults\\\":1081,\\\"./defaults\\\":1082,\\\"./hover\\\":1085,\\\"./marker_colorbar\\\":1092,\\\"./plot\\\":1094,\\\"./select\\\":1095,\\\"./style\\\":1097,\\\"./subtypes\\\":1098}],1087:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\").isArrayOrTypedArray,i=t(\\\"../../components/colorscale/helpers\\\").hasColorscale,a=t(\\\"../../components/colorscale/defaults\\\");e.exports=function(t,e,r,o,s,l){var c=(t.marker||{}).color;(s(\\\"line.color\\\",r),i(t,\\\"line\\\"))?a(t,e,o,s,{prefix:\\\"line.\\\",cLetter:\\\"c\\\"}):s(\\\"line.color\\\",!n(c)&&c||r);s(\\\"line.width\\\"),(l||{}).noDash||s(\\\"line.dash\\\")}},{\\\"../../components/colorscale/defaults\\\":590,\\\"../../components/colorscale/helpers\\\":591,\\\"../../lib\\\":703}],1088:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../constants/numerical\\\"),i=n.BADNUM,a=n.LOG_CLIP,o=a+.5,s=a-.5,l=t(\\\"../../lib\\\"),c=l.segmentsIntersect,u=l.constrain,f=t(\\\"./constants\\\");e.exports=function(t,e){var r,n,a,h,p,d,g,v,m,y,x,b,_,w,k,T,A,M,S=e.xaxis,E=e.yaxis,C=\\\"log\\\"===S.type,L=\\\"log\\\"===E.type,z=S._length,O=E._length,I=e.connectGaps,D=e.baseTolerance,P=e.shape,R=\\\"linear\\\"===P,F=e.fill&&\\\"none\\\"!==e.fill,B=[],N=f.minTolerance,j=t.length,V=new Array(j),U=0;function H(e){var r=t[e];if(!r)return!1;var n=S.c2p(r.x),a=E.c2p(r.y);if(n===i){if(C&&(n=S.c2p(r.x,!0)),n===i)return!1;L&&a===i&&(n*=Math.abs(S._m*O*(S._m>0?o:s)/(E._m*z*(E._m>0?o:s)))),n*=1e3}if(a===i){if(L&&(a=E.c2p(r.y,!0)),a===i)return!1;a*=1e3}return[n,a]}function q(t,e,r,n){var i=r-t,a=n-e,o=.5-t,s=.5-e,l=i*i+a*a,c=i*o+a*s;if(c>0&&c<l){var u=o*a-s*i;if(u*u<l)return!0}}function G(t,e){var r=t[0]/z,n=t[1]/O,i=Math.max(0,-r,r-1,-n,n-1);return i&&void 0!==A&&q(r,n,A,M)&&(i=0),i&&e&&q(r,n,e[0]/z,e[1]/O)&&(i=0),(1+f.toleranceGrowth*i)*D}function Y(t,e){var r=t[0]-e[0],n=t[1]-e[1];return Math.sqrt(r*r+n*n)}var W,X,Z,$,J,K,Q,tt=f.maxScreensAway,et=-z*tt,rt=z*(1+tt),nt=-O*tt,it=O*(1+tt),at=[[et,nt,rt,nt],[rt,nt,rt,it],[rt,it,et,it],[et,it,et,nt]];function ot(t){if(t[0]<et||t[0]>rt||t[1]<nt||t[1]>it)return[u(t[0],et,rt),u(t[1],nt,it)]}function st(t,e){return t[0]===e[0]&&(t[0]===et||t[0]===rt)||(t[1]===e[1]&&(t[1]===nt||t[1]===it)||void 0)}function lt(t,e,r){return function(n,i){var a=ot(n),o=ot(i),s=[];if(a&&o&&st(a,o))return s;a&&s.push(a),o&&s.push(o);var c=2*l.constrain((n[t]+i[t])/2,e,r)-((a||n)[t]+(o||i)[t]);c&&((a&&o?c>0==a[t]>o[t]?a:o:a||o)[t]+=c);return s}}function ct(t){var e=t[0],r=t[1],n=e===V[U-1][0],i=r===V[U-1][1];if(!n||!i)if(U>1){var a=e===V[U-2][0],o=r===V[U-2][1];n&&(e===et||e===rt)&&a?o?U--:V[U-1]=t:i&&(r===nt||r===it)&&o?a?U--:V[U-1]=t:V[U++]=t}else V[U++]=t}function ut(t){V[U-1][0]!==t[0]&&V[U-1][1]!==t[1]&&ct([Z,$]),ct(t),J=null,Z=$=0}function ft(t){if(A=t[0]/z,M=t[1]/O,W=t[0]<et?et:t[0]>rt?rt:0,X=t[1]<nt?nt:t[1]>it?it:0,W||X){if(U)if(J){var e=Q(J,t);e.length>1&&(ut(e[0]),V[U++]=e[1])}else K=Q(V[U-1],t)[0],V[U++]=K;else V[U++]=[W||t[0],X||t[1]];var r=V[U-1];W&&X&&(r[0]!==W||r[1]!==X)?(J&&(Z!==W&&$!==X?ct(Z&&$?(n=J,a=(i=t)[0]-n[0],o=(i[1]-n[1])/a,(n[1]*i[0]-i[1]*n[0])/a>0?[o>0?et:rt,it]:[o>0?rt:et,nt]):[Z||W,$||X]):Z&&$&&ct([Z,$])),ct([W,X])):Z-W&&$-X&&ct([W||Z,X||$]),J=t,Z=W,$=X}else J&&ut(Q(J,t)[0]),V[U++]=t;var n,i,a,o}for(\\\"linear\\\"===P||\\\"spline\\\"===P?Q=function(t,e){for(var r=[],n=0,i=0;i<4;i++){var a=at[i],o=c(t[0],t[1],e[0],e[1],a[0],a[1],a[2],a[3]);o&&(!n||Math.abs(o.x-r[0][0])>1||Math.abs(o.y-r[0][1])>1)&&(o=[o.x,o.y],n&&Y(o,t)<Y(r[0],t)?r.unshift(o):r.push(o),n++)}return r}:\\\"hv\\\"===P||\\\"vh\\\"===P?Q=function(t,e){var r=[],n=ot(t),i=ot(e);return n&&i&&st(n,i)?r:(n&&r.push(n),i&&r.push(i),r)}:\\\"hvh\\\"===P?Q=lt(0,et,rt):\\\"vhv\\\"===P&&(Q=lt(1,nt,it)),r=0;r<j;r++)if(n=H(r)){for(U=0,J=null,ft(n),r++;r<j;r++){if(!(h=H(r))){if(I)continue;break}if(R&&e.simplify){var ht=H(r+1);if(y=Y(h,n),F&&(0===U||U===j-1)||!(y<G(h,ht)*N)){for(v=[(h[0]-n[0])/y,(h[1]-n[1])/y],p=n,x=y,b=w=k=0,g=!1,a=h,r++;r<t.length;r++){if(d=ht,ht=H(r+1),!d){if(I)continue;break}if(T=(m=[d[0]-n[0],d[1]-n[1]])[0]*v[1]-m[1]*v[0],w=Math.min(w,T),(k=Math.max(k,T))-w>G(d,ht))break;a=d,(_=m[0]*v[0]+m[1]*v[1])>x?(x=_,h=d,g=!1):_<b&&(b=_,p=d,g=!0)}if(g?(ft(h),a!==p&&ft(p)):(p!==n&&ft(p),a!==h&&ft(h)),ft(a),r>=t.length||!d)break;ft(d),n=d}}else ft(h)}J&&ct([Z||J[0],$||J[1]]),B.push(V.slice(0,U))}return B}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"./constants\\\":1079}],1089:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r){\\\"spline\\\"===r(\\\"line.shape\\\")&&r(\\\"line.smoothing\\\")}},{}],1090:[function(t,e,r){\\\"use strict\\\";var n={tonextx:1,tonexty:1,tonext:1};e.exports=function(t,e,r){var i,a,o,s,l,c={},u=!1,f=-1,h=0,p=-1;for(a=0;a<r.length;a++)(o=(i=r[a][0].trace).stackgroup||\\\"\\\")?o in c?l=c[o]:(l=c[o]=h,h++):i.fill in n&&p>=0?l=p:(l=p=h,h++),l<f&&(u=!0),i._groupIndex=f=l;var d=r.slice();u&&d.sort(function(t,e){var r=t[0].trace,n=e[0].trace;return r._groupIndex-n._groupIndex||r.index-n.index});var g={};for(a=0;a<d.length;a++)o=(i=d[a][0].trace).stackgroup||\\\"\\\",!0===i.visible?(i._nexttrace=null,i.fill in n&&(s=g[o],i._prevtrace=s||null,s&&(s._nexttrace=i)),i._ownfill=i.fill&&(\\\"tozero\\\"===i.fill.substr(0,6)||\\\"toself\\\"===i.fill||\\\"to\\\"===i.fill.substr(0,2)&&!i._prevtrace),g[o]=i):i._prevtrace=i._nexttrace=i._ownfill=null;return d}},{}],1091:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\");e.exports=function(t){var e=t.marker,r=e.sizeref||1,i=e.sizemin||0,a=\\\"area\\\"===e.sizemode?function(t){return Math.sqrt(t/r)}:function(t){return t/r};return function(t){var e=a(t/2);return n(e)&&e>0?Math.max(e,i):0}}},{\\\"fast-isnumeric\\\":224}],1092:[function(t,e,r){\\\"use strict\\\";e.exports={container:\\\"marker\\\",min:\\\"cmin\\\",max:\\\"cmax\\\"}},{}],1093:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/color\\\"),i=t(\\\"../../components/colorscale/helpers\\\").hasColorscale,a=t(\\\"../../components/colorscale/defaults\\\"),o=t(\\\"./subtypes\\\");e.exports=function(t,e,r,s,l,c){var u=o.isBubble(t),f=(t.line||{}).color;(c=c||{},f&&(r=f),l(\\\"marker.symbol\\\"),l(\\\"marker.opacity\\\",u?.7:1),l(\\\"marker.size\\\"),l(\\\"marker.color\\\",r),i(t,\\\"marker\\\")&&a(t,e,s,l,{prefix:\\\"marker.\\\",cLetter:\\\"c\\\"}),c.noSelect||(l(\\\"selected.marker.color\\\"),l(\\\"unselected.marker.color\\\"),l(\\\"selected.marker.size\\\"),l(\\\"unselected.marker.size\\\")),c.noLine||(l(\\\"marker.line.color\\\",f&&!Array.isArray(f)&&e.marker.color!==f?f:u?n.background:n.defaultLine),i(t,\\\"marker.line\\\")&&a(t,e,s,l,{prefix:\\\"marker.line.\\\",cLetter:\\\"c\\\"}),l(\\\"marker.line.width\\\",u?1:0)),u&&(l(\\\"marker.sizeref\\\"),l(\\\"marker.sizemin\\\"),l(\\\"marker.sizemode\\\")),c.gradient)&&(\\\"none\\\"!==l(\\\"marker.gradient.type\\\")&&l(\\\"marker.gradient.color\\\"))}},{\\\"../../components/color\\\":580,\\\"../../components/colorscale/defaults\\\":590,\\\"../../components/colorscale/helpers\\\":591,\\\"./subtypes\\\":1098}],1094:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"../../lib\\\"),o=a.ensureSingle,s=a.identity,l=t(\\\"../../components/drawing\\\"),c=t(\\\"./subtypes\\\"),u=t(\\\"./line_points\\\"),f=t(\\\"./link_traces\\\"),h=t(\\\"../../lib/polygon\\\").tester;function p(t,e,r,f,p,d,g){var v;!function(t,e,r,i,o){var s=r.xaxis,l=r.yaxis,u=n.extent(a.simpleMap(s.range,s.r2c)),f=n.extent(a.simpleMap(l.range,l.r2c)),h=i[0].trace;if(!c.hasMarkers(h))return;var p=h.marker.maxdisplayed;if(0===p)return;var d=i.filter(function(t){return t.x>=u[0]&&t.x<=u[1]&&t.y>=f[0]&&t.y<=f[1]}),g=Math.ceil(d.length/p),v=0;o.forEach(function(t,r){var n=t[0].trace;c.hasMarkers(n)&&n.marker.maxdisplayed>0&&r<e&&v++});var m=Math.round(v*g/3+Math.floor(v/3)*g/7.1);i.forEach(function(t){delete t.vis}),d.forEach(function(t,e){0===Math.round((e+m)%g)&&(t.vis=!0)})}(0,e,r,f,p);var m=!!g&&g.duration>0;function y(t){return m?t.transition():t}var x=r.xaxis,b=r.yaxis,_=f[0].trace,w=_.line,k=n.select(d),T=o(k,\\\"g\\\",\\\"errorbars\\\"),A=o(k,\\\"g\\\",\\\"lines\\\"),M=o(k,\\\"g\\\",\\\"points\\\"),S=o(k,\\\"g\\\",\\\"text\\\");if(i.getComponentMethod(\\\"errorbars\\\",\\\"plot\\\")(t,T,r,g),!0===_.visible){var E,C;y(k).style(\\\"opacity\\\",_.opacity);var L=_.fill.charAt(_.fill.length-1);\\\"x\\\"!==L&&\\\"y\\\"!==L&&(L=\\\"\\\"),r.isRangePlot||(f[0].node3=k);var z,O,I=\\\"\\\",D=[],P=_._prevtrace;P&&(I=P._prevRevpath||\\\"\\\",C=P._nextFill,D=P._polygons);var R,F,B,N,j,V,U,H=\\\"\\\",q=\\\"\\\",G=[],Y=a.noop;if(E=_._ownFill,c.hasLines(_)||\\\"none\\\"!==_.fill){for(C&&C.datum(f),-1!==[\\\"hv\\\",\\\"vh\\\",\\\"hvh\\\",\\\"vhv\\\"].indexOf(w.shape)?(R=l.steps(w.shape),F=l.steps(w.shape.split(\\\"\\\").reverse().join(\\\"\\\"))):R=F=\\\"spline\\\"===w.shape?function(t){var e=t[t.length-1];return t.length>1&&t[0][0]===e[0]&&t[0][1]===e[1]?l.smoothclosed(t.slice(1),w.smoothing):l.smoothopen(t,w.smoothing)}:function(t){return\\\"M\\\"+t.join(\\\"L\\\")},B=function(t){return F(t.reverse())},G=u(f,{xaxis:x,yaxis:b,connectGaps:_.connectgaps,baseTolerance:Math.max(w.width||1,3)/4,shape:w.shape,simplify:w.simplify,fill:_.fill}),U=_._polygons=new Array(G.length),v=0;v<G.length;v++)_._polygons[v]=h(G[v]);G.length&&(N=G[0][0],V=(j=G[G.length-1])[j.length-1]),Y=function(t){return function(e){if(z=R(e),O=B(e),H?L?(H+=\\\"L\\\"+z.substr(1),q=O+\\\"L\\\"+q.substr(1)):(H+=\\\"Z\\\"+z,q=O+\\\"Z\\\"+q):(H=z,q=O),c.hasLines(_)&&e.length>1){var r=n.select(this);if(r.datum(f),t)y(r.style(\\\"opacity\\\",0).attr(\\\"d\\\",z).call(l.lineGroupStyle)).style(\\\"opacity\\\",1);else{var i=y(r);i.attr(\\\"d\\\",z),l.singleLineStyle(f,i)}}}}}var W=A.selectAll(\\\".js-line\\\").data(G);y(W.exit()).style(\\\"opacity\\\",0).remove(),W.each(Y(!1)),W.enter().append(\\\"path\\\").classed(\\\"js-line\\\",!0).style(\\\"vector-effect\\\",\\\"non-scaling-stroke\\\").call(l.lineGroupStyle).each(Y(!0)),l.setClipUrl(W,r.layerClipId,t),G.length?(E?(E.datum(f),N&&V&&(L?(\\\"y\\\"===L?N[1]=V[1]=b.c2p(0,!0):\\\"x\\\"===L&&(N[0]=V[0]=x.c2p(0,!0)),y(E).attr(\\\"d\\\",\\\"M\\\"+V+\\\"L\\\"+N+\\\"L\\\"+H.substr(1)).call(l.singleFillStyle)):y(E).attr(\\\"d\\\",H+\\\"Z\\\").call(l.singleFillStyle))):C&&(\\\"tonext\\\"===_.fill.substr(0,6)&&H&&I?(\\\"tonext\\\"===_.fill?y(C).attr(\\\"d\\\",H+\\\"Z\\\"+I+\\\"Z\\\").call(l.singleFillStyle):y(C).attr(\\\"d\\\",H+\\\"L\\\"+I.substr(1)+\\\"Z\\\").call(l.singleFillStyle),_._polygons=_._polygons.concat(D)):(Z(C),_._polygons=null)),_._prevRevpath=q,_._prevPolygons=U):(E?Z(E):C&&Z(C),_._polygons=_._prevRevpath=_._prevPolygons=null),M.datum(f),S.datum(f),function(e,i,a){var o,u=a[0].trace,f=c.hasMarkers(u),h=c.hasText(u),p=tt(u),d=et,g=et;if(f||h){var v=s,_=u.stackgroup,w=_&&\\\"infer zero\\\"===t._fullLayout._scatterStackOpts[x._id+b._id][_].stackgaps;u.marker.maxdisplayed||u._needsCull?v=w?J:$:_&&!w&&(v=K),f&&(d=v),h&&(g=v)}var k,T=(o=e.selectAll(\\\"path.point\\\").data(d,p)).enter().append(\\\"path\\\").classed(\\\"point\\\",!0);m&&T.call(l.pointStyle,u,t).call(l.translatePoints,x,b).style(\\\"opacity\\\",0).transition().style(\\\"opacity\\\",1),o.order(),f&&(k=l.makePointStyleFns(u)),o.each(function(e){var i=n.select(this),a=y(i);l.translatePoint(e,a,x,b)?(l.singlePointStyle(e,a,u,k,t),r.layerClipId&&l.hideOutsideRangePoint(e,a,x,b,u.xcalendar,u.ycalendar),u.customdata&&i.classed(\\\"plotly-customdata\\\",null!==e.data&&void 0!==e.data)):a.remove()}),m?o.exit().transition().style(\\\"opacity\\\",0).remove():o.exit().remove(),(o=i.selectAll(\\\"g\\\").data(g,p)).enter().append(\\\"g\\\").classed(\\\"textpoint\\\",!0).append(\\\"text\\\"),o.order(),o.each(function(t){var e=n.select(this),i=y(e.select(\\\"text\\\"));l.translatePoint(t,i,x,b)?r.layerClipId&&l.hideOutsideRangePoint(t,e,x,b,u.xcalendar,u.ycalendar):e.remove()}),o.selectAll(\\\"text\\\").call(l.textPointStyle,u,t).each(function(t){var e=x.c2p(t.x),r=b.c2p(t.y);n.select(this).selectAll(\\\"tspan.line\\\").each(function(){y(n.select(this)).attr({x:e,y:r})})}),o.exit().remove()}(M,S,f);var X=!1===_.cliponaxis?null:r.layerClipId;l.setClipUrl(M,X,t),l.setClipUrl(S,X,t)}function Z(t){y(t).attr(\\\"d\\\",\\\"M0,0Z\\\")}function $(t){return t.filter(function(t){return!t.gap&&t.vis})}function J(t){return t.filter(function(t){return t.vis})}function K(t){return t.filter(function(t){return!t.gap})}function Q(t){return t.id}function tt(t){if(t.ids)return Q}function et(){return!1}}e.exports=function(t,e,r,i,a,c){var u,h,d=!a,g=!!a&&a.duration>0,v=f(t,e,r);((u=i.selectAll(\\\"g.trace\\\").data(v,function(t){return t[0].trace.uid})).enter().append(\\\"g\\\").attr(\\\"class\\\",function(t){return\\\"trace scatter trace\\\"+t[0].trace.uid}).style(\\\"stroke-miterlimit\\\",2),u.order(),function(t,e,r){e.each(function(e){var i=o(n.select(this),\\\"g\\\",\\\"fills\\\");l.setClipUrl(i,r.layerClipId,t);var a=e[0].trace,c=[];a._ownfill&&c.push(\\\"_ownFill\\\"),a._nexttrace&&c.push(\\\"_nextFill\\\");var u=i.selectAll(\\\"g\\\").data(c,s);u.enter().append(\\\"g\\\"),u.exit().each(function(t){a[t]=null}).remove(),u.order().each(function(t){a[t]=o(n.select(this),\\\"path\\\",\\\"js-fill\\\")})})}(t,u,e),g)?(c&&(h=c()),n.transition().duration(a.duration).ease(a.easing).each(\\\"end\\\",function(){h&&h()}).each(\\\"interrupt\\\",function(){h&&h()}).each(function(){i.selectAll(\\\"g.trace\\\").each(function(r,n){p(t,n,e,r,v,this,a)})})):u.each(function(r,n){p(t,n,e,r,v,this,a)});d&&u.exit().remove(),i.selectAll(\\\"path:not([d])\\\").remove()}},{\\\"../../components/drawing\\\":601,\\\"../../lib\\\":703,\\\"../../lib/polygon\\\":715,\\\"../../registry\\\":831,\\\"./line_points\\\":1088,\\\"./link_traces\\\":1090,\\\"./subtypes\\\":1098,d3:157}],1095:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./subtypes\\\");e.exports=function(t,e){var r,i,a,o,s=t.cd,l=t.xaxis,c=t.yaxis,u=[],f=s[0].trace;if(!n.hasMarkers(f)&&!n.hasText(f))return[];if(!1===e)for(r=0;r<s.length;r++)s[r].selected=0;else for(r=0;r<s.length;r++)i=s[r],a=l.c2p(i.x),o=c.c2p(i.y),null!==i.i&&e.contains([a,o],!1,r,t)?(u.push({pointNumber:i.i,x:l.c2d(i.x),y:c.c2d(i.y)}),i.selected=1):i.selected=0;return u}},{\\\"./subtypes\\\":1098}],1096:[function(t,e,r){\\\"use strict\\\";var n=[\\\"orientation\\\",\\\"groupnorm\\\",\\\"stackgaps\\\"];e.exports=function(t,e,r,i){var a=r._scatterStackOpts,o=i(\\\"stackgroup\\\");if(o){var s=e.xaxis+e.yaxis,l=a[s];l||(l=a[s]={});var c=l[o],u=!1;c?c.traces.push(e):(c=l[o]={traceIndices:[],traces:[e]},u=!0);for(var f={orientation:e.x&&!e.y?\\\"h\\\":\\\"v\\\"},h=0;h<n.length;h++){var p=n[h],d=p+\\\"Found\\\";if(!c[d]){var g=void 0!==t[p],v=\\\"orientation\\\"===p;if((g||u)&&(c[p]=i(p,f[p]),v&&(c.fillDflt=\\\"h\\\"===c[p]?\\\"tonextx\\\":\\\"tonexty\\\"),g&&(c[d]=!0,!u&&(delete c.traces[0][p],v))))for(var m=0;m<c.traces.length-1;m++){var y=c.traces[m];y._input.fill!==y.fill&&(y.fill=c.fillDflt)}}}return c}}},{}],1097:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../components/drawing\\\"),a=t(\\\"../../registry\\\");function o(t,e,r){i.pointStyle(t.selectAll(\\\"path.point\\\"),e,r)}function s(t,e,r){i.textPointStyle(t.selectAll(\\\"text\\\"),e,r)}e.exports={style:function(t,e){var r=e?e[0].node3:n.select(t).selectAll(\\\"g.trace.scatter\\\");r.style(\\\"opacity\\\",function(t){return t[0].trace.opacity}),r.selectAll(\\\"g.points\\\").each(function(e){o(n.select(this),e.trace||e[0].trace,t)}),r.selectAll(\\\"g.text\\\").each(function(e){s(n.select(this),e.trace||e[0].trace,t)}),r.selectAll(\\\"g.trace path.js-line\\\").call(i.lineGroupStyle),r.selectAll(\\\"g.trace path.js-fill\\\").call(i.fillGroupStyle),a.getComponentMethod(\\\"errorbars\\\",\\\"style\\\")(r)},stylePoints:o,styleText:s,styleOnSelect:function(t,e){var r=e[0].node3,n=e[0].trace;n.selectedpoints?(i.selectedPointStyle(r.selectAll(\\\"path.point\\\"),n),i.selectedTextStyle(r.selectAll(\\\"text\\\"),n)):(o(r,n,t),s(r,n,t))}}},{\\\"../../components/drawing\\\":601,\\\"../../registry\\\":831,d3:157}],1098:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\");e.exports={hasLines:function(t){return t.visible&&t.mode&&-1!==t.mode.indexOf(\\\"lines\\\")},hasMarkers:function(t){return t.visible&&(t.mode&&-1!==t.mode.indexOf(\\\"markers\\\")||\\\"splom\\\"===t.type)},hasText:function(t){return t.visible&&t.mode&&-1!==t.mode.indexOf(\\\"text\\\")},isBubble:function(t){return n.isPlainObject(t.marker)&&n.isArrayOrTypedArray(t.marker.size)}}},{\\\"../../lib\\\":703}],1099:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\");e.exports=function(t,e,r,i,a){a=a||{},i(\\\"textposition\\\"),n.coerceFont(i,\\\"textfont\\\",r.font),a.noSelect||(i(\\\"selected.textfont.color\\\"),i(\\\"unselected.textfont.color\\\"))}},{\\\"../../lib\\\":703}],1100:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../registry\\\");e.exports=function(t,e,r,a){var o,s=a(\\\"x\\\"),l=a(\\\"y\\\");if(i.getComponentMethod(\\\"calendars\\\",\\\"handleTraceDefaults\\\")(t,e,[\\\"x\\\",\\\"y\\\"],r),s){var c=n.minRowLength(s);l?o=Math.min(c,n.minRowLength(l)):(o=c,a(\\\"y0\\\"),a(\\\"dy\\\"))}else{if(!l)return 0;o=n.minRowLength(l),a(\\\"x0\\\"),a(\\\"dx\\\")}return e._length=o,o}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831}],1101:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../scatter/attributes\\\"),i=t(\\\"../../components/colorscale/attributes\\\"),a=t(\\\"../../components/fx/hovertemplate_attributes\\\"),o=t(\\\"../../plots/attributes\\\"),s=t(\\\"../../constants/gl3d_dashes\\\"),l=t(\\\"../../constants/gl3d_markers\\\"),c=t(\\\"../../lib/extend\\\").extendFlat,u=t(\\\"../../plot_api/edit_types\\\").overrideAll,f=n.line,h=n.marker,p=h.line,d=c({width:f.width,dash:{valType:\\\"enumerated\\\",values:Object.keys(s),dflt:\\\"solid\\\"}},i(\\\"line\\\"));var g=e.exports=u({x:n.x,y:n.y,z:{valType:\\\"data_array\\\"},text:c({},n.text,{}),hovertext:c({},n.hovertext,{}),hovertemplate:a(),mode:c({},n.mode,{dflt:\\\"lines+markers\\\"}),surfaceaxis:{valType:\\\"enumerated\\\",values:[-1,0,1,2],dflt:-1},surfacecolor:{valType:\\\"color\\\"},projection:{x:{show:{valType:\\\"boolean\\\",dflt:!1},opacity:{valType:\\\"number\\\",min:0,max:1,dflt:1},scale:{valType:\\\"number\\\",min:0,max:10,dflt:2/3}},y:{show:{valType:\\\"boolean\\\",dflt:!1},opacity:{valType:\\\"number\\\",min:0,max:1,dflt:1},scale:{valType:\\\"number\\\",min:0,max:10,dflt:2/3}},z:{show:{valType:\\\"boolean\\\",dflt:!1},opacity:{valType:\\\"number\\\",min:0,max:1,dflt:1},scale:{valType:\\\"number\\\",min:0,max:10,dflt:2/3}}},connectgaps:n.connectgaps,line:d,marker:c({symbol:{valType:\\\"enumerated\\\",values:Object.keys(l),dflt:\\\"circle\\\",arrayOk:!0},size:c({},h.size,{dflt:8}),sizeref:h.sizeref,sizemin:h.sizemin,sizemode:h.sizemode,opacity:c({},h.opacity,{arrayOk:!1}),colorbar:h.colorbar,line:c({width:c({},p.width,{arrayOk:!1})},i(\\\"marker.line\\\"))},i(\\\"marker\\\")),textposition:c({},n.textposition,{dflt:\\\"top center\\\"}),textfont:{color:n.textfont.color,size:n.textfont.size,family:c({},n.textfont.family,{arrayOk:!1})},hoverinfo:c({},o.hoverinfo)},\\\"calc\\\",\\\"nested\\\");g.x.editType=g.y.editType=g.z.editType=\\\"calc+clearAxisTypes\\\"},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../constants/gl3d_dashes\\\":677,\\\"../../constants/gl3d_markers\\\":678,\\\"../../lib/extend\\\":693,\\\"../../plot_api/edit_types\\\":734,\\\"../../plots/attributes\\\":748,\\\"../scatter/attributes\\\":1075}],1102:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../scatter/arrays_to_calcdata\\\"),i=t(\\\"../scatter/colorscale_calc\\\");e.exports=function(t,e){var r=[{x:!1,y:!1,trace:e,t:{}}];return n(r,e),i(t,e),r}},{\\\"../scatter/arrays_to_calcdata\\\":1074,\\\"../scatter/colorscale_calc\\\":1078}],1103:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\");function i(t,e,r,i){if(!e||!e.visible)return null;for(var a=n.getComponentMethod(\\\"errorbars\\\",\\\"makeComputeError\\\")(e),o=new Array(t.length),s=0;s<t.length;s++){var l=a(+t[s],s);if(\\\"log\\\"===i.type){var c=i.c2l(t[s]),u=t[s]-l[0],f=t[s]+l[1];if(o[s]=[(i.c2l(u,!0)-c)*r,(i.c2l(f,!0)-c)*r],u>0){var h=i.c2l(u);i._lowerLogErrorBound||(i._lowerLogErrorBound=h),i._lowerErrorBound=Math.min(i._lowerLogErrorBound,h)}}else o[s]=[-l[0]*r,l[1]*r]}return o}e.exports=function(t,e,r){var n=[i(t.x,t.error_x,e[0],r.xaxis),i(t.y,t.error_y,e[1],r.yaxis),i(t.z,t.error_z,e[2],r.zaxis)],a=function(t){for(var e=0;e<t.length;e++)if(t[e])return t[e].length;return 0}(n);if(0===a)return null;for(var o=new Array(a),s=0;s<a;s++){for(var l=[[0,0,0],[0,0,0]],c=0;c<3;c++)if(n[c])for(var u=0;u<2;u++)l[u][c]=n[c][s][u];o[s]=l}return o}},{\\\"../../registry\\\":831}],1104:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-line3d\\\"),i=t(\\\"gl-scatter3d\\\"),a=t(\\\"gl-error3d\\\"),o=t(\\\"gl-mesh3d\\\"),s=t(\\\"delaunay-triangulate\\\"),l=t(\\\"../../lib\\\"),c=t(\\\"../../lib/str2rgbarray\\\"),u=t(\\\"../../lib/gl_format_color\\\").formatColor,f=t(\\\"../scatter/make_bubble_size_func\\\"),h=t(\\\"../../constants/gl3d_dashes\\\"),p=t(\\\"../../constants/gl3d_markers\\\"),d=t(\\\"./calc_errors\\\");function g(t,e){this.scene=t,this.uid=e,this.linePlot=null,this.scatterPlot=null,this.errorBars=null,this.textMarkers=null,this.delaunayMesh=null,this.color=null,this.mode=\\\"\\\",this.dataPoints=[],this.axesBounds=[[-1/0,-1/0,-1/0],[1/0,1/0,1/0]],this.textLabels=null,this.data=null}var v=g.prototype;function m(t){return null==t?0:t.indexOf(\\\"left\\\")>-1?-1:t.indexOf(\\\"right\\\")>-1?1:0}function y(t){return null==t?0:t.indexOf(\\\"top\\\")>-1?-1:t.indexOf(\\\"bottom\\\")>-1?1:0}function x(t,e){return e(4*t)}function b(t){return p[t]}function _(t,e,r,n,i){var a=null;if(l.isArrayOrTypedArray(t)){a=[];for(var o=0;o<e;o++)void 0===t[o]?a[o]=n:a[o]=r(t[o],i)}else a=r(t,l.identity);return a}function w(t,e){var r,n,i,a,o,s,h=[],p=t.fullSceneLayout,g=t.dataScale,v=p.xaxis,w=p.yaxis,k=p.zaxis,T=e.marker,A=e.line,M=e.x||[],S=e.y||[],E=e.z||[],C=M.length,L=e.xcalendar,z=e.ycalendar,O=e.zcalendar;for(o=0;o<C;o++)r=v.d2l(M[o],0,L)*g[0],n=w.d2l(S[o],0,z)*g[1],i=k.d2l(E[o],0,O)*g[2],h[o]=[r,n,i];if(Array.isArray(e.text))s=e.text;else if(void 0!==e.text)for(s=new Array(C),o=0;o<C;o++)s[o]=e.text;if(a={position:h,mode:e.mode,text:s},\\\"line\\\"in e&&(a.lineColor=u(A,1,C),a.lineWidth=A.width,a.lineDashes=A.dash),\\\"marker\\\"in e){var I=f(e);a.scatterColor=u(T,1,C),a.scatterSize=_(T.size,C,x,20,I),a.scatterMarker=_(T.symbol,C,b,\\\"\\\\u25cf\\\"),a.scatterLineWidth=T.line.width,a.scatterLineColor=u(T.line,1,C),a.scatterAngle=0}\\\"textposition\\\"in e&&(a.textOffset=function(t){var e=[0,0];if(Array.isArray(t))for(var r=0;r<t.length;r++)e[r]=[0,0],t[r]&&(e[r][0]=m(t[r]),e[r][1]=y(t[r]));else e[0]=m(t),e[1]=y(t);return e}(e.textposition),a.textColor=u(e.textfont,1,C),a.textSize=_(e.textfont.size,C,l.identity,12),a.textFont=e.textfont.family,a.textAngle=0);var D=[\\\"x\\\",\\\"y\\\",\\\"z\\\"];for(a.project=[!1,!1,!1],a.projectScale=[1,1,1],a.projectOpacity=[1,1,1],o=0;o<3;++o){var P=e.projection[D[o]];(a.project[o]=P.show)&&(a.projectOpacity[o]=P.opacity,a.projectScale[o]=P.scale)}a.errorBounds=d(e,g,p);var R=function(t){for(var e=[0,0,0],r=[[0,0,0],[0,0,0],[0,0,0]],n=[1,1,1],i=0;i<3;i++){var a=t[i];a&&!1!==a.copy_zstyle&&!1!==t[2].visible&&(a=t[2]),a&&a.visible&&(e[i]=a.width/2,r[i]=c(a.color),n[i]=a.thickness)}return{capSize:e,color:r,lineWidth:n}}([e.error_x,e.error_y,e.error_z]);return a.errorColor=R.color,a.errorLineWidth=R.lineWidth,a.errorCapSize=R.capSize,a.delaunayAxis=e.surfaceaxis,a.delaunayColor=c(e.surfacecolor),a}function k(t){if(Array.isArray(t)){var e=t[0];return Array.isArray(e)&&(t=e),\\\"rgb(\\\"+t.slice(0,3).map(function(t){return Math.round(255*t)})+\\\")\\\"}return null}v.handlePick=function(t){if(t.object&&(t.object===this.linePlot||t.object===this.delaunayMesh||t.object===this.textMarkers||t.object===this.scatterPlot)){var e=t.index=t.data.index;return t.object.highlight&&t.object.highlight(null),this.scatterPlot&&(t.object=this.scatterPlot,this.scatterPlot.highlight(t.data)),t.textLabel=\\\"\\\",this.textLabels&&(Array.isArray(this.textLabels)?(this.textLabels[e]||0===this.textLabels[e])&&(t.textLabel=this.textLabels[e]):t.textLabel=this.textLabels),t.traceCoordinate=[this.data.x[e],this.data.y[e],this.data.z[e]],!0}},v.update=function(t){var e,r,l,c,u=this.scene.glplot.gl,f=h.solid;this.data=t;var p=w(this.scene,t);\\\"mode\\\"in p&&(this.mode=p.mode),\\\"lineDashes\\\"in p&&p.lineDashes in h&&(f=h[p.lineDashes]),this.color=k(p.scatterColor)||k(p.lineColor),this.dataPoints=p.position,e={gl:this.scene.glplot.gl,position:p.position,color:p.lineColor,lineWidth:p.lineWidth||1,dashes:f[0],dashScale:f[1],opacity:t.opacity,connectGaps:t.connectgaps},-1!==this.mode.indexOf(\\\"lines\\\")?this.linePlot?this.linePlot.update(e):(this.linePlot=n(e),this.linePlot._trace=this,this.scene.glplot.add(this.linePlot)):this.linePlot&&(this.scene.glplot.remove(this.linePlot),this.linePlot.dispose(),this.linePlot=null);var d=t.opacity;if(t.marker&&t.marker.opacity&&(d*=t.marker.opacity),r={gl:this.scene.glplot.gl,position:p.position,color:p.scatterColor,size:p.scatterSize,glyph:p.scatterMarker,opacity:d,orthographic:!0,lineWidth:p.scatterLineWidth,lineColor:p.scatterLineColor,project:p.project,projectScale:p.projectScale,projectOpacity:p.projectOpacity},-1!==this.mode.indexOf(\\\"markers\\\")?this.scatterPlot?this.scatterPlot.update(r):(this.scatterPlot=i(r),this.scatterPlot._trace=this,this.scatterPlot.highlightScale=1,this.scene.glplot.add(this.scatterPlot)):this.scatterPlot&&(this.scene.glplot.remove(this.scatterPlot),this.scatterPlot.dispose(),this.scatterPlot=null),c={gl:this.scene.glplot.gl,position:p.position,glyph:p.text,color:p.textColor,size:p.textSize,angle:p.textAngle,alignment:p.textOffset,font:p.textFont,orthographic:!0,lineWidth:0,project:!1,opacity:t.opacity},this.textLabels=t.hovertext||t.text,-1!==this.mode.indexOf(\\\"text\\\")?this.textMarkers?this.textMarkers.update(c):(this.textMarkers=i(c),this.textMarkers._trace=this,this.textMarkers.highlightScale=1,this.scene.glplot.add(this.textMarkers)):this.textMarkers&&(this.scene.glplot.remove(this.textMarkers),this.textMarkers.dispose(),this.textMarkers=null),l={gl:this.scene.glplot.gl,position:p.position,color:p.errorColor,error:p.errorBounds,lineWidth:p.errorLineWidth,capSize:p.errorCapSize,opacity:t.opacity},this.errorBars?p.errorBounds?this.errorBars.update(l):(this.scene.glplot.remove(this.errorBars),this.errorBars.dispose(),this.errorBars=null):p.errorBounds&&(this.errorBars=a(l),this.errorBars._trace=this,this.scene.glplot.add(this.errorBars)),p.delaunayAxis>=0){var g=function(t,e,r){var n,i=(r+1)%3,a=(r+2)%3,o=[],l=[];for(n=0;n<t.length;++n){var c=t[n];!isNaN(c[i])&&isFinite(c[i])&&!isNaN(c[a])&&isFinite(c[a])&&(o.push([c[i],c[a]]),l.push(n))}var u=s(o);for(n=0;n<u.length;++n)for(var f=u[n],h=0;h<f.length;++h)f[h]=l[f[h]];return{positions:t,cells:u,meshColor:e}}(p.position,p.delaunayColor,p.delaunayAxis);g.opacity=t.opacity,this.delaunayMesh?this.delaunayMesh.update(g):(g.gl=u,this.delaunayMesh=o(g),this.delaunayMesh._trace=this,this.scene.glplot.add(this.delaunayMesh))}else this.delaunayMesh&&(this.scene.glplot.remove(this.delaunayMesh),this.delaunayMesh.dispose(),this.delaunayMesh=null)},v.dispose=function(){this.linePlot&&(this.scene.glplot.remove(this.linePlot),this.linePlot.dispose()),this.scatterPlot&&(this.scene.glplot.remove(this.scatterPlot),this.scatterPlot.dispose()),this.errorBars&&(this.scene.glplot.remove(this.errorBars),this.errorBars.dispose()),this.textMarkers&&(this.scene.glplot.remove(this.textMarkers),this.textMarkers.dispose()),this.delaunayMesh&&(this.scene.glplot.remove(this.delaunayMesh),this.delaunayMesh.dispose())},e.exports=function(t,e){var r=new g(t,e.uid);return r.update(e),r}},{\\\"../../constants/gl3d_dashes\\\":677,\\\"../../constants/gl3d_markers\\\":678,\\\"../../lib\\\":703,\\\"../../lib/gl_format_color\\\":700,\\\"../../lib/str2rgbarray\\\":726,\\\"../scatter/make_bubble_size_func\\\":1091,\\\"./calc_errors\\\":1103,\\\"delaunay-triangulate\\\":159,\\\"gl-error3d\\\":246,\\\"gl-line3d\\\":254,\\\"gl-mesh3d\\\":279,\\\"gl-scatter3d\\\":296}],1105:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../scatter/subtypes\\\"),o=t(\\\"../scatter/marker_defaults\\\"),s=t(\\\"../scatter/line_defaults\\\"),l=t(\\\"../scatter/text_defaults\\\"),c=t(\\\"./attributes\\\");e.exports=function(t,e,r,u){function f(r,n){return i.coerce(t,e,c,r,n)}if(function(t,e,r,i){var a=0,o=r(\\\"x\\\"),s=r(\\\"y\\\"),l=r(\\\"z\\\");n.getComponentMethod(\\\"calendars\\\",\\\"handleTraceDefaults\\\")(t,e,[\\\"x\\\",\\\"y\\\",\\\"z\\\"],i),o&&s&&l&&(a=Math.min(o.length,s.length,l.length),e._length=e._xlength=e._ylength=e._zlength=a);return a}(t,e,f,u)){f(\\\"text\\\"),f(\\\"hovertext\\\"),f(\\\"hovertemplate\\\"),f(\\\"mode\\\"),a.hasLines(e)&&(f(\\\"connectgaps\\\"),s(t,e,r,u,f)),a.hasMarkers(e)&&o(t,e,r,u,f,{noSelect:!0}),a.hasText(e)&&l(t,e,u,f,{noSelect:!0});var h=(e.line||{}).color,p=(e.marker||{}).color;f(\\\"surfaceaxis\\\")>=0&&f(\\\"surfacecolor\\\",h||p);for(var d=[\\\"x\\\",\\\"y\\\",\\\"z\\\"],g=0;g<3;++g){var v=\\\"projection.\\\"+d[g];f(v+\\\".show\\\")&&(f(v+\\\".opacity\\\"),f(v+\\\".scale\\\"))}var m=n.getComponentMethod(\\\"errorbars\\\",\\\"supplyDefaults\\\");m(t,e,h||p||r,{axis:\\\"z\\\"}),m(t,e,h||p||r,{axis:\\\"y\\\",inherit:\\\"z\\\"}),m(t,e,h||p||r,{axis:\\\"x\\\",inherit:\\\"z\\\"})}else e.visible=!1}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"../scatter/line_defaults\\\":1087,\\\"../scatter/marker_defaults\\\":1093,\\\"../scatter/subtypes\\\":1098,\\\"../scatter/text_defaults\\\":1099,\\\"./attributes\\\":1101}],1106:[function(t,e,r){\\\"use strict\\\";e.exports={plot:t(\\\"./convert\\\"),attributes:t(\\\"./attributes\\\"),markerSymbols:t(\\\"../../constants/gl3d_markers\\\"),supplyDefaults:t(\\\"./defaults\\\"),colorbar:[{container:\\\"marker\\\",min:\\\"cmin\\\",max:\\\"cmax\\\"},{container:\\\"line\\\",min:\\\"cmin\\\",max:\\\"cmax\\\"}],calc:t(\\\"./calc\\\"),moduleType:\\\"trace\\\",name:\\\"scatter3d\\\",basePlotModule:t(\\\"../../plots/gl3d\\\"),categories:[\\\"gl3d\\\",\\\"symbols\\\",\\\"showLegend\\\"],meta:{}}},{\\\"../../constants/gl3d_markers\\\":678,\\\"../../plots/gl3d\\\":791,\\\"./attributes\\\":1101,\\\"./calc\\\":1102,\\\"./convert\\\":1104,\\\"./defaults\\\":1105}],1107:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../scatter/attributes\\\"),i=t(\\\"../../plots/attributes\\\"),a=t(\\\"../../components/fx/hovertemplate_attributes\\\"),o=t(\\\"../../components/colorscale/attributes\\\"),s=t(\\\"../../lib/extend\\\").extendFlat,l=n.marker,c=n.line,u=l.line;e.exports={carpet:{valType:\\\"string\\\",editType:\\\"calc\\\"},a:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},b:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},mode:s({},n.mode,{dflt:\\\"markers\\\"}),text:s({},n.text,{}),hovertext:s({},n.hovertext,{}),line:{color:c.color,width:c.width,dash:c.dash,shape:s({},c.shape,{values:[\\\"linear\\\",\\\"spline\\\"]}),smoothing:c.smoothing,editType:\\\"calc\\\"},connectgaps:n.connectgaps,fill:s({},n.fill,{values:[\\\"none\\\",\\\"toself\\\",\\\"tonext\\\"],dflt:\\\"none\\\"}),fillcolor:n.fillcolor,marker:s({symbol:l.symbol,opacity:l.opacity,maxdisplayed:l.maxdisplayed,size:l.size,sizeref:l.sizeref,sizemin:l.sizemin,sizemode:l.sizemode,line:s({width:u.width,editType:\\\"calc\\\"},o(\\\"marker.line\\\")),gradient:l.gradient,editType:\\\"calc\\\"},o(\\\"marker\\\")),textfont:n.textfont,textposition:n.textposition,selected:n.selected,unselected:n.unselected,hoverinfo:s({},i.hoverinfo,{flags:[\\\"a\\\",\\\"b\\\",\\\"text\\\",\\\"name\\\"]}),hoveron:n.hoveron,hovertemplate:a()}},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plots/attributes\\\":748,\\\"../scatter/attributes\\\":1075}],1108:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../scatter/colorscale_calc\\\"),a=t(\\\"../scatter/arrays_to_calcdata\\\"),o=t(\\\"../scatter/calc_selection\\\"),s=t(\\\"../scatter/calc\\\").calcMarkerSize,l=t(\\\"../carpet/lookup_carpetid\\\");e.exports=function(t,e){var r=e._carpetTrace=l(t,e);if(r&&r.visible&&\\\"legendonly\\\"!==r.visible){var c;e.xaxis=r.xaxis,e.yaxis=r.yaxis;var u,f,h=e._length,p=new Array(h),d=!1;for(c=0;c<h;c++)if(u=e.a[c],f=e.b[c],n(u)&&n(f)){var g=r.ab2xy(+u,+f,!0),v=r.isVisible(+u,+f);v||(d=!0),p[c]={x:g[0],y:g[1],a:u,b:f,vis:v}}else p[c]={x:!1,y:!1};return e._needsCull=d,p[0].carpet=r,p[0].trace=e,s(e,h),i(t,e),a(p,e),o(p,e),p}}},{\\\"../carpet/lookup_carpetid\\\":899,\\\"../scatter/arrays_to_calcdata\\\":1074,\\\"../scatter/calc\\\":1076,\\\"../scatter/calc_selection\\\":1077,\\\"../scatter/colorscale_calc\\\":1078,\\\"fast-isnumeric\\\":224}],1109:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../scatter/constants\\\"),a=t(\\\"../scatter/subtypes\\\"),o=t(\\\"../scatter/marker_defaults\\\"),s=t(\\\"../scatter/line_defaults\\\"),l=t(\\\"../scatter/line_shape_defaults\\\"),c=t(\\\"../scatter/text_defaults\\\"),u=t(\\\"../scatter/fillcolor_defaults\\\"),f=t(\\\"./attributes\\\");e.exports=function(t,e,r,h){function p(r,i){return n.coerce(t,e,f,r,i)}p(\\\"carpet\\\"),e.xaxis=\\\"x\\\",e.yaxis=\\\"y\\\";var d=p(\\\"a\\\"),g=p(\\\"b\\\"),v=Math.min(d.length,g.length);if(v){e._length=v,p(\\\"text\\\"),p(\\\"hovertext\\\"),p(\\\"mode\\\",v<i.PTS_LINESONLY?\\\"lines+markers\\\":\\\"lines\\\"),a.hasLines(e)&&(s(t,e,r,h,p),l(t,e,p),p(\\\"connectgaps\\\")),a.hasMarkers(e)&&o(t,e,r,h,p,{gradient:!0}),a.hasText(e)&&c(t,e,h,p);var m=[];(a.hasMarkers(e)||a.hasText(e))&&(p(\\\"marker.maxdisplayed\\\"),m.push(\\\"points\\\")),p(\\\"fill\\\"),\\\"none\\\"!==e.fill&&(u(t,e,r,p),a.hasLines(e)||l(t,e,p)),\\\"tonext\\\"!==e.fill&&\\\"toself\\\"!==e.fill||m.push(\\\"fills\\\"),\\\"fills\\\"!==p(\\\"hoveron\\\",m.join(\\\"+\\\")||\\\"points\\\")&&p(\\\"hovertemplate\\\"),n.coerceSelectionMarkerOpacity(e,p)}else e.visible=!1}},{\\\"../../lib\\\":703,\\\"../scatter/constants\\\":1079,\\\"../scatter/fillcolor_defaults\\\":1083,\\\"../scatter/line_defaults\\\":1087,\\\"../scatter/line_shape_defaults\\\":1089,\\\"../scatter/marker_defaults\\\":1093,\\\"../scatter/subtypes\\\":1098,\\\"../scatter/text_defaults\\\":1099,\\\"./attributes\\\":1107}],1110:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,n,i){var a=n[i];return t.a=a.a,t.b=a.b,t.y=a.y,t}},{}],1111:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../scatter/hover\\\"),i=t(\\\"../../lib\\\").fillText;e.exports=function(t,e,r,a){var o=n(t,e,r,a);if(o&&!1!==o[0].index){var s=o[0];if(void 0===s.index){var l=1-s.y0/t.ya._length,c=t.xa._length,u=c*l/2,f=c-u;return s.x0=Math.max(Math.min(s.x0,f),u),s.x1=Math.max(Math.min(s.x1,f),u),o}var h=s.cd[s.index];s.a=h.a,s.b=h.b,s.xLabelVal=void 0,s.yLabelVal=void 0;var p=s.trace,d=p._carpet,g=d.ab2ij([h.a,h.b]),v=Math.floor(g[0]),m=g[0]-v,y=Math.floor(g[1]),x=g[1]-y,b=d.evalxy([],v,y,m,x);s.yLabel=b[1].toFixed(3),delete s.text;var _=[];if(!p.hovertemplate){var w=(h.hi||p.hoverinfo).split(\\\"+\\\");-1!==w.indexOf(\\\"all\\\")&&(w=[\\\"a\\\",\\\"b\\\",\\\"text\\\"]),-1!==w.indexOf(\\\"a\\\")&&k(d.aaxis,h.a),-1!==w.indexOf(\\\"b\\\")&&k(d.baxis,h.b),_.push(\\\"y: \\\"+s.yLabel),-1!==w.indexOf(\\\"text\\\")&&i(h,p,_),s.extraText=_.join(\\\"<br>\\\")}return o}function k(t,e){var r;r=t.labelprefix&&t.labelprefix.length>0?t.labelprefix.replace(/ = $/,\\\"\\\"):t._hovertitle,_.push(r+\\\": \\\"+e.toFixed(3)+t.labelsuffix)}}},{\\\"../../lib\\\":703,\\\"../scatter/hover\\\":1085}],1112:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),colorbar:t(\\\"../scatter/marker_colorbar\\\"),calc:t(\\\"./calc\\\"),plot:t(\\\"./plot\\\"),style:t(\\\"../scatter/style\\\").style,styleOnSelect:t(\\\"../scatter/style\\\").styleOnSelect,hoverPoints:t(\\\"./hover\\\"),selectPoints:t(\\\"../scatter/select\\\"),eventData:t(\\\"./event_data\\\"),moduleType:\\\"trace\\\",name:\\\"scattercarpet\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"svg\\\",\\\"carpet\\\",\\\"symbols\\\",\\\"showLegend\\\",\\\"carpetDependent\\\",\\\"zoomScale\\\"],meta:{}}},{\\\"../../plots/cartesian\\\":762,\\\"../scatter/marker_colorbar\\\":1092,\\\"../scatter/select\\\":1095,\\\"../scatter/style\\\":1097,\\\"./attributes\\\":1107,\\\"./calc\\\":1108,\\\"./defaults\\\":1109,\\\"./event_data\\\":1110,\\\"./hover\\\":1111,\\\"./plot\\\":1113}],1113:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../scatter/plot\\\"),i=t(\\\"../../plots/cartesian/axes\\\"),a=t(\\\"../../components/drawing\\\");e.exports=function(t,e,r,o){var s,l,c,u=r[0][0].carpet,f={xaxis:i.getFromId(t,u.xaxis||\\\"x\\\"),yaxis:i.getFromId(t,u.yaxis||\\\"y\\\"),plot:e.plot};for(n(t,f,r,o),s=0;s<r.length;s++)l=r[s][0].trace,c=o.selectAll(\\\"g.trace\\\"+l.uid+\\\" .js-line\\\"),a.setClipUrl(c,r[s][0].carpet._clipPathId,t)}},{\\\"../../components/drawing\\\":601,\\\"../../plots/cartesian/axes\\\":751,\\\"../scatter/plot\\\":1094}],1114:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/fx/hovertemplate_attributes\\\"),i=t(\\\"../scatter/attributes\\\"),a=t(\\\"../../plots/attributes\\\"),o=t(\\\"../../components/colorscale/attributes\\\"),s=t(\\\"../../components/drawing/attributes\\\").dash,l=t(\\\"../../lib/extend\\\").extendFlat,c=t(\\\"../../plot_api/edit_types\\\").overrideAll,u=i.marker,f=i.line,h=u.line;e.exports=c({lon:{valType:\\\"data_array\\\"},lat:{valType:\\\"data_array\\\"},locations:{valType:\\\"data_array\\\"},locationmode:{valType:\\\"enumerated\\\",values:[\\\"ISO-3\\\",\\\"USA-states\\\",\\\"country names\\\"],dflt:\\\"ISO-3\\\"},mode:l({},i.mode,{dflt:\\\"markers\\\"}),text:l({},i.text,{}),hovertext:l({},i.hovertext,{}),textfont:i.textfont,textposition:i.textposition,line:{color:f.color,width:f.width,dash:s},connectgaps:i.connectgaps,marker:l({symbol:u.symbol,opacity:u.opacity,size:u.size,sizeref:u.sizeref,sizemin:u.sizemin,sizemode:u.sizemode,colorbar:u.colorbar,line:l({width:h.width},o(\\\"marker.line\\\")),gradient:u.gradient},o(\\\"marker\\\")),fill:{valType:\\\"enumerated\\\",values:[\\\"none\\\",\\\"toself\\\"],dflt:\\\"none\\\"},fillcolor:i.fillcolor,selected:i.selected,unselected:i.unselected,hoverinfo:l({},a.hoverinfo,{flags:[\\\"lon\\\",\\\"lat\\\",\\\"location\\\",\\\"text\\\",\\\"name\\\"]}),hovertemplate:n()},\\\"calc\\\",\\\"nested\\\")},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/drawing/attributes\\\":600,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plot_api/edit_types\\\":734,\\\"../../plots/attributes\\\":748,\\\"../scatter/attributes\\\":1075}],1115:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../constants/numerical\\\").BADNUM,a=t(\\\"../scatter/colorscale_calc\\\"),o=t(\\\"../scatter/arrays_to_calcdata\\\"),s=t(\\\"../scatter/calc_selection\\\"),l=t(\\\"../../lib\\\")._;e.exports=function(t,e){for(var r=Array.isArray(e.locations),c=r?e.locations.length:e._length,u=new Array(c),f=0;f<c;f++){var h=u[f]={};if(r){var p=e.locations[f];h.loc=\\\"string\\\"==typeof p?p:null}else{var d=e.lon[f],g=e.lat[f];n(d)&&n(g)?h.lonlat=[+d,+g]:h.lonlat=[i,i]}}return o(u,e),a(t,e),s(u,e),c&&(u[0].t={labels:{lat:l(t,\\\"lat:\\\")+\\\" \\\",lon:l(t,\\\"lon:\\\")+\\\" \\\"}}),u}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"../scatter/arrays_to_calcdata\\\":1074,\\\"../scatter/calc_selection\\\":1077,\\\"../scatter/colorscale_calc\\\":1078,\\\"fast-isnumeric\\\":224}],1116:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../scatter/subtypes\\\"),a=t(\\\"../scatter/marker_defaults\\\"),o=t(\\\"../scatter/line_defaults\\\"),s=t(\\\"../scatter/text_defaults\\\"),l=t(\\\"../scatter/fillcolor_defaults\\\"),c=t(\\\"./attributes\\\");e.exports=function(t,e,r,u){function f(r,i){return n.coerce(t,e,c,r,i)}!function(t,e,r){var n,i,a=0,o=r(\\\"locations\\\");if(o)return r(\\\"locationmode\\\"),a=o.length;return n=r(\\\"lon\\\")||[],i=r(\\\"lat\\\")||[],a=Math.min(n.length,i.length),e._length=a,a}(0,e,f)?e.visible=!1:(f(\\\"text\\\"),f(\\\"hovertext\\\"),f(\\\"hovertemplate\\\"),f(\\\"mode\\\"),i.hasLines(e)&&(o(t,e,r,u,f),f(\\\"connectgaps\\\")),i.hasMarkers(e)&&a(t,e,r,u,f,{gradient:!0}),i.hasText(e)&&s(t,e,u,f),f(\\\"fill\\\"),\\\"none\\\"!==e.fill&&l(t,e,r,f),n.coerceSelectionMarkerOpacity(e,f))}},{\\\"../../lib\\\":703,\\\"../scatter/fillcolor_defaults\\\":1083,\\\"../scatter/line_defaults\\\":1087,\\\"../scatter/marker_defaults\\\":1093,\\\"../scatter/subtypes\\\":1098,\\\"../scatter/text_defaults\\\":1099,\\\"./attributes\\\":1114}],1117:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){return t.lon=e.lon,t.lat=e.lat,t.location=e.loc?e.loc:null,t}},{}],1118:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/fx\\\"),i=t(\\\"../../plots/cartesian/axes\\\"),a=t(\\\"../../constants/numerical\\\").BADNUM,o=t(\\\"../scatter/get_trace_color\\\"),s=t(\\\"../../lib\\\").fillText,l=t(\\\"./attributes\\\");e.exports=function(t,e,r){var c=t.cd,u=c[0].trace,f=t.xa,h=t.ya,p=t.subplot,d=p.projection.isLonLatOverEdges,g=p.project;if(n.getClosest(c,function(t){var n=t.lonlat;if(n[0]===a)return 1/0;if(d(n))return 1/0;var i=g(n),o=g([e,r]),s=Math.abs(i[0]-o[0]),l=Math.abs(i[1]-o[1]),c=Math.max(3,t.mrc||0);return Math.max(Math.sqrt(s*s+l*l)-c,1-3/c)},t),!1!==t.index){var v=c[t.index],m=v.lonlat,y=[f.c2p(m),h.c2p(m)],x=v.mrc||1;return t.x0=y[0]-x,t.x1=y[0]+x,t.y0=y[1]-x,t.y1=y[1]+x,t.loc=v.loc,t.lon=m[0],t.lat=m[1],t.color=o(u,v),t.extraText=function(t,e,r,n){if(t.hovertemplate)return;var a=e.hi||t.hoverinfo,o=\\\"all\\\"===a?l.hoverinfo.flags:a.split(\\\"+\\\"),c=-1!==o.indexOf(\\\"location\\\")&&Array.isArray(t.locations),u=-1!==o.indexOf(\\\"lon\\\"),f=-1!==o.indexOf(\\\"lat\\\"),h=-1!==o.indexOf(\\\"text\\\"),p=[];function d(t){return i.tickText(r,r.c2l(t),\\\"hover\\\").text+\\\"\\\\xb0\\\"}c?p.push(e.loc):u&&f?p.push(\\\"(\\\"+d(e.lonlat[0])+\\\", \\\"+d(e.lonlat[1])+\\\")\\\"):u?p.push(n.lon+d(e.lonlat[0])):f&&p.push(n.lat+d(e.lonlat[1]));h&&s(e,t,p);return p.join(\\\"<br>\\\")}(u,v,p.mockAxis,c[0].t.labels),t.hovertemplate=u.hovertemplate,[t]}}},{\\\"../../components/fx\\\":619,\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"../scatter/get_trace_color\\\":1084,\\\"./attributes\\\":1114}],1119:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),colorbar:t(\\\"../scatter/marker_colorbar\\\"),calc:t(\\\"./calc\\\"),plot:t(\\\"./plot\\\"),style:t(\\\"./style\\\"),styleOnSelect:t(\\\"../scatter/style\\\").styleOnSelect,hoverPoints:t(\\\"./hover\\\"),eventData:t(\\\"./event_data\\\"),selectPoints:t(\\\"./select\\\"),moduleType:\\\"trace\\\",name:\\\"scattergeo\\\",basePlotModule:t(\\\"../../plots/geo\\\"),categories:[\\\"geo\\\",\\\"symbols\\\",\\\"showLegend\\\",\\\"scatter-like\\\"],meta:{}}},{\\\"../../plots/geo\\\":781,\\\"../scatter/marker_colorbar\\\":1092,\\\"../scatter/style\\\":1097,\\\"./attributes\\\":1114,\\\"./calc\\\":1115,\\\"./defaults\\\":1116,\\\"./event_data\\\":1117,\\\"./hover\\\":1118,\\\"./plot\\\":1120,\\\"./select\\\":1121,\\\"./style\\\":1122}],1120:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../constants/numerical\\\").BADNUM,o=t(\\\"../../lib/topojson_utils\\\").getTopojsonFeatures,s=t(\\\"../../lib/geo_location_utils\\\").locationToFeature,l=t(\\\"../../lib/geojson_utils\\\"),c=t(\\\"../scatter/subtypes\\\"),u=t(\\\"./style\\\");function f(t,e){var r=t[0].trace;if(Array.isArray(r.locations))for(var n=o(r,e),i=r.locationmode,l=0;l<t.length;l++){var c=t[l],u=s(i,c.loc,n);c.lonlat=u?u.properties.ct:[a,a]}}e.exports=function(t,e,r){for(var o=0;o<r.length;o++)f(r[o],e.topojson);function s(t,e){t.lonlat[0]===a&&n.select(e).remove()}var h=e.layers.frontplot.select(\\\".scatterlayer\\\"),p=i.makeTraceGroups(h,r,\\\"trace scattergeo\\\");p.selectAll(\\\"*\\\").remove(),p.each(function(e){var r=e[0].node3=n.select(this),a=e[0].trace;if(c.hasLines(a)||\\\"none\\\"!==a.fill){var o=l.calcTraceToLineCoords(e),f=\\\"none\\\"!==a.fill?l.makePolygon(o):l.makeLine(o);r.selectAll(\\\"path.js-line\\\").data([{geojson:f,trace:a}]).enter().append(\\\"path\\\").classed(\\\"js-line\\\",!0).style(\\\"stroke-miterlimit\\\",2)}c.hasMarkers(a)&&r.selectAll(\\\"path.point\\\").data(i.identity).enter().append(\\\"path\\\").classed(\\\"point\\\",!0).each(function(t){s(t,this)}),c.hasText(a)&&r.selectAll(\\\"g\\\").data(i.identity).enter().append(\\\"g\\\").append(\\\"text\\\").each(function(t){s(t,this)}),u(t,e)})}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"../../lib/geo_location_utils\\\":696,\\\"../../lib/geojson_utils\\\":697,\\\"../../lib/topojson_utils\\\":730,\\\"../scatter/subtypes\\\":1098,\\\"./style\\\":1122,d3:157}],1121:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../scatter/subtypes\\\"),i=t(\\\"../../constants/numerical\\\").BADNUM;e.exports=function(t,e){var r,a,o,s,l,c=t.cd,u=t.xaxis,f=t.yaxis,h=[],p=c[0].trace;if(!n.hasMarkers(p)&&!n.hasText(p))return[];if(!1===e)for(l=0;l<c.length;l++)c[l].selected=0;else for(l=0;l<c.length;l++)(a=(r=c[l]).lonlat)[0]!==i&&(o=u.c2p(a),s=f.c2p(a),e.contains([o,s],null,l,t)?(h.push({pointNumber:l,lon:a[0],lat:a[1]}),r.selected=1):r.selected=0);return h}},{\\\"../../constants/numerical\\\":680,\\\"../scatter/subtypes\\\":1098}],1122:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../components/drawing\\\"),a=t(\\\"../../components/color\\\"),o=t(\\\"../scatter/style\\\"),s=o.stylePoints,l=o.styleText;e.exports=function(t,e){e&&function(t,e){var r=e[0].trace,o=e[0].node3;o.style(\\\"opacity\\\",e[0].trace.opacity),s(o,r,t),l(o,r,t),o.selectAll(\\\"path.js-line\\\").style(\\\"fill\\\",\\\"none\\\").each(function(t){var e=n.select(this),r=t.trace,o=r.line||{};e.call(a.stroke,o.color).call(i.dashLine,o.dash||\\\"\\\",o.width||0),\\\"none\\\"!==r.fill&&e.call(a.fill,r.fillcolor)})}(t,e)}},{\\\"../../components/color\\\":580,\\\"../../components/drawing\\\":601,\\\"../scatter/style\\\":1097,d3:157}],1123:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/attributes\\\"),i=t(\\\"../scatter/attributes\\\"),a=t(\\\"../../components/colorscale/attributes\\\"),o=t(\\\"../../lib/extend\\\").extendFlat,s=t(\\\"../../plot_api/edit_types\\\").overrideAll,l=t(\\\"./constants\\\").DASHES,c=i.line,u=i.marker,f=u.line,h=e.exports=s({x:i.x,x0:i.x0,dx:i.dx,y:i.y,y0:i.y0,dy:i.dy,text:i.text,hovertext:i.hovertext,textposition:i.textposition,textfont:i.textfont,mode:{valType:\\\"flaglist\\\",flags:[\\\"lines\\\",\\\"markers\\\",\\\"text\\\"],extras:[\\\"none\\\"]},line:{color:c.color,width:c.width,shape:{valType:\\\"enumerated\\\",values:[\\\"linear\\\",\\\"hv\\\",\\\"vh\\\",\\\"hvh\\\",\\\"vhv\\\"],dflt:\\\"linear\\\",editType:\\\"plot\\\"},dash:{valType:\\\"enumerated\\\",values:Object.keys(l),dflt:\\\"solid\\\"}},marker:o({},a(\\\"marker\\\"),{symbol:u.symbol,size:u.size,sizeref:u.sizeref,sizemin:u.sizemin,sizemode:u.sizemode,opacity:u.opacity,colorbar:u.colorbar,line:o({},a(\\\"marker.line\\\"),{width:f.width})}),connectgaps:i.connectgaps,fill:o({},i.fill,{dflt:\\\"none\\\"}),fillcolor:i.fillcolor,selected:{marker:i.selected.marker,textfont:i.selected.textfont},unselected:{marker:i.unselected.marker,textfont:i.unselected.textfont},opacity:n.opacity},\\\"calc\\\",\\\"nested\\\");h.x.editType=h.y.editType=h.x0.editType=h.y0.editType=\\\"calc+clearAxisTypes\\\",h.hovertemplate=i.hovertemplate},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../lib/extend\\\":693,\\\"../../plot_api/edit_types\\\":734,\\\"../../plots/attributes\\\":748,\\\"../scatter/attributes\\\":1075,\\\"./constants\\\":1124}],1124:[function(t,e,r){\\\"use strict\\\";e.exports={TOO_MANY_POINTS:1e5,SYMBOL_SDF_SIZE:200,SYMBOL_SIZE:20,SYMBOL_STROKE:1,DOT_RE:/-dot/,OPEN_RE:/-open/,DASHES:{solid:[1],dot:[1,1],dash:[4,1],longdash:[8,1],dashdot:[4,1,1,1],longdashdot:[8,1,1,1]}}},{}],1125:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"svg-path-sdf\\\"),a=t(\\\"color-normalize\\\"),o=t(\\\"../../registry\\\"),s=t(\\\"../../lib\\\"),l=t(\\\"../../components/drawing\\\"),c=t(\\\"../../plots/cartesian/axis_ids\\\"),u=t(\\\"../../lib/gl_format_color\\\").formatColor,f=t(\\\"../scatter/subtypes\\\"),h=t(\\\"../scatter/make_bubble_size_func\\\"),p=t(\\\"./constants\\\"),d=t(\\\"../../constants/interactions\\\").DESELECTDIM,g={start:1,left:1,end:-1,right:-1,middle:0,center:0,bottom:1,top:-1};function v(t){var e,r=t._length,i=t.textfont,a=t.textposition,o=Array.isArray(a)?a:[a],s=i.color,l=i.size,c=i.family,u={};for(u.text=t.text,u.opacity=t.opacity,u.font={},u.align=[],u.baseline=[],e=0;e<o.length;e++){var f=o[e].split(/\\\\s+/);switch(f[1]){case\\\"left\\\":u.align.push(\\\"right\\\");break;case\\\"right\\\":u.align.push(\\\"left\\\");break;default:u.align.push(f[1])}switch(f[0]){case\\\"top\\\":u.baseline.push(\\\"bottom\\\");break;case\\\"bottom\\\":u.baseline.push(\\\"top\\\");break;default:u.baseline.push(f[0])}}if(Array.isArray(s))for(u.color=new Array(r),e=0;e<r;e++)u.color[e]=s[e];else u.color=s;if(Array.isArray(l)||Array.isArray(c))for(u.font=new Array(r),e=0;e<r;e++){var h=u.font[e]={};h.size=Array.isArray(l)?n(l[e])?l[e]:0:l,h.family=Array.isArray(c)?c[e]:c}else u.font={size:l,family:c};return u}function m(t){var e,r,n=t._length,i=t.marker,o={},l=Array.isArray(i.symbol),c=s.isArrayOrTypedArray(i.color),f=s.isArrayOrTypedArray(i.line.color),d=s.isArrayOrTypedArray(i.opacity),g=s.isArrayOrTypedArray(i.size),v=s.isArrayOrTypedArray(i.line.width);if(l||(r=p.OPEN_RE.test(i.symbol)),l||c||f||d){o.colors=new Array(n),o.borderColors=new Array(n);var m=u(i,i.opacity,n),y=u(i.line,i.opacity,n);if(!Array.isArray(y[0])){var x=y;for(y=Array(n),e=0;e<n;e++)y[e]=x}if(!Array.isArray(m[0])){var b=m;for(m=Array(n),e=0;e<n;e++)m[e]=b}for(o.colors=m,o.borderColors=y,e=0;e<n;e++){if(l){var _=i.symbol[e];r=p.OPEN_RE.test(_)}r&&(y[e]=m[e].slice(),m[e]=m[e].slice(),m[e][3]=0)}o.opacity=t.opacity}else r?(o.color=a(i.color,\\\"uint8\\\"),o.color[3]=0,o.borderColor=a(i.color,\\\"uint8\\\")):(o.color=a(i.color,\\\"uint8\\\"),o.borderColor=a(i.line.color,\\\"uint8\\\")),o.opacity=t.opacity*i.opacity;if(l)for(o.markers=new Array(n),e=0;e<n;e++)o.markers[e]=M(i.symbol[e]);else o.marker=M(i.symbol);var w,k=h(t);if(g||v){var T,A=o.sizes=new Array(n),S=o.borderSizes=new Array(n),E=0;if(g){for(e=0;e<n;e++)A[e]=k(i.size[e]),E+=A[e];T=E/n}else for(w=k(i.size),e=0;e<n;e++)A[e]=w;if(v)for(e=0;e<n;e++)S[e]=i.line.width[e]/2;else for(w=i.line.width/2,e=0;e<n;e++)S[e]=w;o.sizeAvg=T}else o.size=k(i&&i.size||10),o.borderSizes=k(i.line.width);return o}function y(t,e){var r=t.marker,n={};return e?(e.marker&&e.marker.symbol?n=m(s.extendFlat({},r,e.marker)):e.marker&&(e.marker.size&&(n.size=e.marker.size/2),e.marker.color&&(n.colors=e.marker.color),void 0!==e.marker.opacity&&(n.opacity=e.marker.opacity)),n):n}function x(t,e){var r={};if(!e)return r;if(e.textfont){var n={opacity:1,text:t.text,textposition:t.textposition,textfont:s.extendFlat({},t.textfont)};e.textfont&&s.extendFlat(n.textfont,e.textfont),r=v(n)}return r}function b(t,e){var r={capSize:2*e.width,lineWidth:e.thickness,color:e.color};return e.copy_ystyle&&(r=t.error_y),r}var _=p.SYMBOL_SDF_SIZE,w=p.SYMBOL_SIZE,k=p.SYMBOL_STROKE,T={},A=l.symbolFuncs[0](.05*w);function M(t){if(\\\"circle\\\"===t)return null;var e,r,n=l.symbolNumber(t),a=l.symbolFuncs[n%100],o=!!l.symbolNoDot[n%100],s=!!l.symbolNoFill[n%100],c=p.DOT_RE.test(t);return T[t]?T[t]:(e=c&&!o?a(1.1*w)+A:a(w),r=i(e,{w:_,h:_,viewBox:[-w,-w,w,w],stroke:s?k:-k}),T[t]=r,r||null)}e.exports={style:function(t,e){var r,n={marker:void 0,markerSel:void 0,markerUnsel:void 0,line:void 0,fill:void 0,errorX:void 0,errorY:void 0,text:void 0,textSel:void 0,textUnsel:void 0};if(!0!==e.visible)return n;if(f.hasText(e)&&(n.text=v(e),n.textSel=x(e,e.selected),n.textUnsel=x(e,e.unselected)),f.hasMarkers(e)&&(n.marker=m(e),n.markerSel=y(e,e.selected),n.markerUnsel=y(e,e.unselected),!e.unselected&&Array.isArray(e.marker.opacity))){var i=e.marker.opacity;for(n.markerUnsel.opacity=new Array(i.length),r=0;r<i.length;r++)n.markerUnsel.opacity[r]=d*i[r]}if(f.hasLines(e)){n.line={overlay:!0,thickness:e.line.width,color:e.line.color,opacity:e.opacity};var a=(p.DASHES[e.line.dash]||[1]).slice();for(r=0;r<a.length;++r)a[r]*=e.line.width;n.line.dashes=a}return e.error_x&&e.error_x.visible&&(n.errorX=b(e,e.error_x)),e.error_y&&e.error_y.visible&&(n.errorY=b(e,e.error_y)),e.fill&&\\\"none\\\"!==e.fill&&(n.fill={closed:!0,fill:e.fillcolor,thickness:0}),n},markerStyle:m,markerSelection:y,linePositions:function(t,e,r){var n,i,a=r.length,o=a/2;if(f.hasLines(e)&&o)if(\\\"hv\\\"===e.line.shape){for(n=[],i=0;i<o-1;i++)isNaN(r[2*i])||isNaN(r[2*i+1])?n.push(NaN,NaN,NaN,NaN):(n.push(r[2*i],r[2*i+1]),isNaN(r[2*i+2])||isNaN(r[2*i+3])?n.push(NaN,NaN):n.push(r[2*i+2],r[2*i+1]));n.push(r[a-2],r[a-1])}else if(\\\"hvh\\\"===e.line.shape){for(n=[],i=0;i<o-1;i++)if(isNaN(r[2*i])||isNaN(r[2*i+1])||isNaN(r[2*i+2])||isNaN(r[2*i+3]))isNaN(r[2*i])||isNaN(r[2*i+1])?n.push(NaN,NaN):n.push(r[2*i],r[2*i+1]),n.push(NaN,NaN);else{var s=(r[2*i]+r[2*i+2])/2;n.push(r[2*i],r[2*i+1],s,r[2*i+1],s,r[2*i+3])}n.push(r[a-2],r[a-1])}else if(\\\"vhv\\\"===e.line.shape){for(n=[],i=0;i<o-1;i++)if(isNaN(r[2*i])||isNaN(r[2*i+1])||isNaN(r[2*i+2])||isNaN(r[2*i+3]))isNaN(r[2*i])||isNaN(r[2*i+1])?n.push(NaN,NaN):n.push(r[2*i],r[2*i+1]),n.push(NaN,NaN);else{var l=(r[2*i+1]+r[2*i+3])/2;n.push(r[2*i],r[2*i+1],r[2*i],l,r[2*i+2],l)}n.push(r[a-2],r[a-1])}else if(\\\"vh\\\"===e.line.shape){for(n=[],i=0;i<o-1;i++)isNaN(r[2*i])||isNaN(r[2*i+1])?n.push(NaN,NaN,NaN,NaN):(n.push(r[2*i],r[2*i+1]),isNaN(r[2*i+2])||isNaN(r[2*i+3])?n.push(NaN,NaN):n.push(r[2*i],r[2*i+3]));n.push(r[a-2],r[a-1])}else n=r;var c=!1;for(i=0;i<n.length;i++)if(isNaN(n[i])){c=!0;break}var u=c||n.length>p.TOO_MANY_POINTS?\\\"rect\\\":f.hasMarkers(e)?\\\"rect\\\":\\\"round\\\";if(c&&e.connectgaps){var h=n[0],d=n[1];for(i=0;i<n.length;i+=2)isNaN(n[i])||isNaN(n[i+1])?(n[i]=h,n[i+1]=d):(h=n[i],d=n[i+1])}return{join:u,positions:n}},errorBarPositions:function(t,e,r,i,a){var s=o.getComponentMethod(\\\"errorbars\\\",\\\"makeComputeError\\\"),l=c.getFromId(t,e.xaxis),u=c.getFromId(t,e.yaxis),f=r.length/2,h={};function p(t,i){var a=i._id.charAt(0),o=e[\\\"error_\\\"+a];if(o&&o.visible&&(\\\"linear\\\"===i.type||\\\"log\\\"===i.type)){for(var l=s(o),c={x:0,y:1}[a],u={x:[0,1,2,3],y:[2,3,0,1]}[a],p=new Float64Array(4*f),d=1/0,g=-1/0,v=0,m=0;v<f;v++,m+=4){var y=t[v];if(n(y)){var x=r[2*v+c],b=l(y,v),_=b[0],w=b[1];if(n(_)&&n(w)){var k=y-_,T=y+w;p[m+u[0]]=x-i.c2l(k),p[m+u[1]]=i.c2l(T)-x,p[m+u[2]]=0,p[m+u[3]]=0,d=Math.min(d,y-_),g=Math.max(g,y+w)}}}h[a]={positions:r,errors:p,_bnds:[d,g]}}}return p(i,l),p(a,u),h},textPosition:function(t,e,r,n){var i,a=e._length,o={};if(f.hasMarkers(e)){var s=r.font,l=r.align,c=r.baseline;for(o.offset=new Array(a),i=0;i<a;i++){var u=n.sizes?n.sizes[i]:n.size,h=Array.isArray(s)?s[i].size:s.size,p=Array.isArray(l)?l.length>1?l[i]:l[0]:l,d=Array.isArray(c)?c.length>1?c[i]:c[0]:c,v=g[p],m=g[d],y=u?u/.8+1:0,x=-m*y-.5*m;o.offset[i]=[v*y/h,x/h]}}return o}}},{\\\"../../components/drawing\\\":601,\\\"../../constants/interactions\\\":679,\\\"../../lib\\\":703,\\\"../../lib/gl_format_color\\\":700,\\\"../../plots/cartesian/axis_ids\\\":754,\\\"../../registry\\\":831,\\\"../scatter/make_bubble_size_func\\\":1091,\\\"../scatter/subtypes\\\":1098,\\\"./constants\\\":1124,\\\"color-normalize\\\":113,\\\"fast-isnumeric\\\":224,\\\"svg-path-sdf\\\":522}],1126:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"./attributes\\\"),o=t(\\\"../scatter/constants\\\"),s=t(\\\"../scatter/subtypes\\\"),l=t(\\\"../scatter/xy_defaults\\\"),c=t(\\\"../scatter/marker_defaults\\\"),u=t(\\\"../scatter/line_defaults\\\"),f=t(\\\"../scatter/fillcolor_defaults\\\"),h=t(\\\"../scatter/text_defaults\\\");e.exports=function(t,e,r,p){function d(r,i){return n.coerce(t,e,a,r,i)}var g=!!t.marker&&/-open/.test(t.marker.symbol),v=s.isBubble(t),m=l(t,e,p,d);if(m){var y=m<o.PTS_LINESONLY?\\\"lines+markers\\\":\\\"lines\\\";d(\\\"text\\\"),d(\\\"hovertext\\\"),d(\\\"hovertemplate\\\"),d(\\\"mode\\\",y),s.hasLines(e)&&(d(\\\"connectgaps\\\"),u(t,e,r,p,d),d(\\\"line.shape\\\")),s.hasMarkers(e)&&(c(t,e,r,p,d),d(\\\"marker.line.width\\\",g||v?1:0)),s.hasText(e)&&h(t,e,p,d);var x=(e.line||{}).color,b=(e.marker||{}).color;d(\\\"fill\\\"),\\\"none\\\"!==e.fill&&f(t,e,r,d);var _=i.getComponentMethod(\\\"errorbars\\\",\\\"supplyDefaults\\\");_(t,e,x||b||r,{axis:\\\"y\\\"}),_(t,e,x||b||r,{axis:\\\"x\\\",inherit:\\\"y\\\"}),n.coerceSelectionMarkerOpacity(e,d)}else e.visible=!1}},{\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"../scatter/constants\\\":1079,\\\"../scatter/fillcolor_defaults\\\":1083,\\\"../scatter/line_defaults\\\":1087,\\\"../scatter/marker_defaults\\\":1093,\\\"../scatter/subtypes\\\":1098,\\\"../scatter/text_defaults\\\":1099,\\\"../scatter/xy_defaults\\\":1100,\\\"./attributes\\\":1123}],1127:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"regl-scatter2d\\\"),i=t(\\\"regl-line2d\\\"),a=t(\\\"regl-error2d\\\"),o=t(\\\"point-cluster\\\"),s=t(\\\"gl-text\\\"),l=t(\\\"../../registry\\\"),c=t(\\\"../../lib\\\"),u=t(\\\"../../lib/prepare_regl\\\"),f=t(\\\"../../plots/cartesian/axis_ids\\\"),h=t(\\\"../../plots/cartesian/autorange\\\").findExtremes,p=t(\\\"../../components/color\\\"),d=t(\\\"../scatter/subtypes\\\"),g=t(\\\"../scatter/calc\\\"),v=g.calcMarkerSize,m=g.calcAxisExpansion,y=g.setFirstScatter,x=t(\\\"../scatter/colorscale_calc\\\"),b=t(\\\"../scatter/link_traces\\\"),_=t(\\\"../scatter/get_trace_color\\\"),w=c.fillText,k=t(\\\"./convert\\\"),T=t(\\\"../../constants/numerical\\\").BADNUM,A=t(\\\"./constants\\\").TOO_MANY_POINTS,M=t(\\\"../../constants/interactions\\\").DESELECTDIM;function S(t,e,r){var n=t._extremes[e._id],i=h(e,r._bnds,{padded:!0});n.min=n.min.concat(i.min),n.max=n.max.concat(i.max)}function E(t,e){var r=e._scene,n={count:0,dirty:!0,lineOptions:[],fillOptions:[],markerOptions:[],markerSelectedOptions:[],markerUnselectedOptions:[],errorXOptions:[],errorYOptions:[],textOptions:[],textSelectedOptions:[],textUnselectedOptions:[],selectBatch:[],unselectBatch:[]},i={fill2d:!1,scatter2d:!1,error2d:!1,line2d:!1,glText:!1,select2d:!1};return e._scene||((r=e._scene={}).init=function(){c.extendFlat(r,i,n)},r.init(),r.update=function(t){var e=c.repeat(t,r.count);if(r.fill2d&&r.fill2d.update(e),r.scatter2d&&r.scatter2d.update(e),r.line2d&&r.line2d.update(e),r.error2d&&r.error2d.update(e.concat(e)),r.select2d&&r.select2d.update(e),r.glText)for(var n=0;n<r.count;n++)r.glText[n].update(t)},r.draw=function(){for(var t=r.count,e=r.fill2d,n=r.error2d,i=r.line2d,a=r.scatter2d,o=r.glText,s=r.select2d,l=r.selectBatch,u=r.unselectBatch,f=0;f<t;f++){if(e&&r.fillOrder[f]&&e.draw(r.fillOrder[f]),i&&r.lineOptions[f]&&i.draw(f),n&&(r.errorXOptions[f]&&n.draw(f),r.errorYOptions[f]&&n.draw(f+t)),a&&r.markerOptions[f])if(u[f].length){var h=c.repeat([],r.count);h[f]=u[f],a.draw(h)}else l[f].length||a.draw(f);o[f]&&r.textOptions[f]&&o[f].render()}s&&s.draw(l),r.dirty=!1},r.destroy=function(){r.fill2d&&r.fill2d.destroy&&r.fill2d.destroy(),r.scatter2d&&r.scatter2d.destroy&&r.scatter2d.destroy(),r.error2d&&r.error2d.destroy&&r.error2d.destroy(),r.line2d&&r.line2d.destroy&&r.line2d.destroy(),r.select2d&&r.select2d.destroy&&r.select2d.destroy(),r.glText&&r.glText.forEach(function(t){t.destroy&&t.destroy()}),r.lineOptions=null,r.fillOptions=null,r.markerOptions=null,r.markerSelectedOptions=null,r.markerUnselectedOptions=null,r.errorXOptions=null,r.errorYOptions=null,r.textOptions=null,r.textSelectedOptions=null,r.textUnselectedOptions=null,r.selectBatch=null,r.unselectBatch=null,e._scene=null}),r.dirty||c.extendFlat(r,n),r}function C(t,e,r,n){var i=t.xa,a=t.ya,o=t.distance,s=t.dxy,u=t.index,f={pointNumber:u,x:e[u],y:r[u]};f.tx=Array.isArray(n.text)?n.text[u]:n.text,f.htx=Array.isArray(n.hovertext)?n.hovertext[u]:n.hovertext,f.data=Array.isArray(n.customdata)?n.customdata[u]:n.customdata,f.tp=Array.isArray(n.textposition)?n.textposition[u]:n.textposition;var h=n.textfont;h&&(f.ts=Array.isArray(h.size)?h.size[u]:h.size,f.tc=Array.isArray(h.color)?h.color[u]:h.color,f.tf=Array.isArray(h.family)?h.family[u]:h.family);var p=n.marker;p&&(f.ms=c.isArrayOrTypedArray(p.size)?p.size[u]:p.size,f.mo=c.isArrayOrTypedArray(p.opacity)?p.opacity[u]:p.opacity,f.mx=Array.isArray(p.symbol)?p.symbol[u]:p.symbol,f.mc=c.isArrayOrTypedArray(p.color)?p.color[u]:p.color);var d=p&&p.line;d&&(f.mlc=Array.isArray(d.color)?d.color[u]:d.color,f.mlw=c.isArrayOrTypedArray(d.width)?d.width[u]:d.width);var g=p&&p.gradient;g&&\\\"none\\\"!==g.type&&(f.mgt=Array.isArray(g.type)?g.type[u]:g.type,f.mgc=Array.isArray(g.color)?g.color[u]:g.color);var v=i.c2p(f.x,!0),m=a.c2p(f.y,!0),y=f.mrc||1,x=n.hoverlabel;x&&(f.hbg=Array.isArray(x.bgcolor)?x.bgcolor[u]:x.bgcolor,f.hbc=Array.isArray(x.bordercolor)?x.bordercolor[u]:x.bordercolor,f.hts=Array.isArray(x.font.size)?x.font.size[u]:x.font.size,f.htc=Array.isArray(x.font.color)?x.font.color[u]:x.font.color,f.htf=Array.isArray(x.font.family)?x.font.family[u]:x.font.family,f.hnl=Array.isArray(x.namelength)?x.namelength[u]:x.namelength);var b=n.hoverinfo;b&&(f.hi=Array.isArray(b)?b[u]:b);var k=n.hovertemplate;k&&(f.ht=Array.isArray(k)?k[u]:k);var T={};return T[t.index]=f,c.extendFlat(t,{color:_(n,f),x0:v-y,x1:v+y,xLabelVal:f.x,y0:m-y,y1:m+y,yLabelVal:f.y,cd:T,distance:o,spikeDistance:s,hovertemplate:f.ht}),f.htx?t.text=f.htx:f.tx?t.text=f.tx:n.text&&(t.text=n.text),w(f,n,t),l.getComponentMethod(\\\"errorbars\\\",\\\"hoverInfo\\\")(f,n,t),t}function L(t){var e,r,n=t[0],i=n.trace,a=n.t,o=a._scene,s=a.index,l=o.selectBatch[s],u=o.unselectBatch[s],f=o.textOptions[s],h=o.textSelectedOptions[s]||{},d=o.textUnselectedOptions[s]||{},g=c.extendFlat({},f);if(l.length||u.length){var v=h.color,m=d.color,y=f.color,x=Array.isArray(y);for(g.color=new Array(i._length),e=0;e<l.length;e++)r=l[e],g.color[r]=v||(x?y[r]:y);for(e=0;e<u.length;e++){r=u[e];var b=x?y[r]:y;g.color[r]=m||(v?b:p.addOpacity(b,M))}}o.glText[s].update(g)}e.exports={moduleType:\\\"trace\\\",name:\\\"scattergl\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"gl\\\",\\\"regl\\\",\\\"cartesian\\\",\\\"symbols\\\",\\\"errorBarsOK\\\",\\\"showLegend\\\",\\\"scatter-like\\\"],attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),crossTraceDefaults:t(\\\"../scatter/cross_trace_defaults\\\"),colorbar:t(\\\"../scatter/marker_colorbar\\\"),calc:function(t,e){var r,n,i,a=t._fullLayout,s=f.getFromId(t,e.xaxis),l=f.getFromId(t,e.yaxis),u=a._plots[e.xaxis+e.yaxis],h=e._length,p=h>=A,d=2*h,g={},b=s.makeCalcdata(e,\\\"x\\\"),_=l.makeCalcdata(e,\\\"y\\\"),w=new Array(d);for(r=0;r<h;r++)n=b[r],i=_[r],w[2*r]=n===T?NaN:n,w[2*r+1]=i===T?NaN:i;if(\\\"log\\\"===s.type)for(r=0;r<d;r+=2)w[r]=s.c2l(w[r]);if(\\\"log\\\"===l.type)for(r=1;r<d;r+=2)w[r]=l.c2l(w[r]);if(p&&\\\"log\\\"!==s.type&&\\\"log\\\"!==l.type)g.tree=o(w);else{var M=g.ids=new Array(h);for(r=0;r<h;r++)M[r]=r}x(t,e);var C,L=function(t,e,r,n,i,a){var o=k.style(t,r);if(o.marker&&(o.marker.positions=n),o.line&&n.length>1&&c.extendFlat(o.line,k.linePositions(t,r,n)),o.errorX||o.errorY){var s=k.errorBarPositions(t,r,n,i,a);o.errorX&&c.extendFlat(o.errorX,s.x),o.errorY&&c.extendFlat(o.errorY,s.y)}return o.text&&(c.extendFlat(o.text,{positions:n},k.textPosition(t,r,o.text,o.marker)),c.extendFlat(o.textSel,{positions:n},k.textPosition(t,r,o.text,o.markerSel)),c.extendFlat(o.textUnsel,{positions:n},k.textPosition(t,r,o.text,o.markerUnsel))),o}(t,0,e,w,b,_),z=E(0,u);return y(a,e),p?L.marker&&(C=2*(L.marker.sizeAvg||Math.max(L.marker.size,3))):C=v(e,h),m(t,e,s,l,b,_,C),L.errorX&&S(e,s,L.errorX),L.errorY&&S(e,l,L.errorY),L.fill&&!z.fill2d&&(z.fill2d=!0),L.marker&&!z.scatter2d&&(z.scatter2d=!0),L.line&&!z.line2d&&(z.line2d=!0),!L.errorX&&!L.errorY||z.error2d||(z.error2d=!0),L.text&&!z.glText&&(z.glText=!0),L.marker&&(L.marker.snap=g.tree||A),z.lineOptions.push(L.line),z.errorXOptions.push(L.errorX),z.errorYOptions.push(L.errorY),z.fillOptions.push(L.fill),z.markerOptions.push(L.marker),z.markerSelectedOptions.push(L.markerSel),z.markerUnselectedOptions.push(L.markerUnsel),z.textOptions.push(L.text),z.textSelectedOptions.push(L.textSel),z.textUnselectedOptions.push(L.textUnsel),z.selectBatch.push([]),z.unselectBatch.push([]),g._scene=z,g.index=z.count,g.x=b,g.y=_,g.positions=w,z.count++,[{x:!1,y:!1,t:g,trace:e}]},plot:function(t,e,r){if(r.length){var o,l,f=t._fullLayout,h=e._scene,p=e.xaxis,g=e.yaxis;if(h)if(u(t,[\\\"ANGLE_instanced_arrays\\\",\\\"OES_element_index_uint\\\"])){var v=h.count,m=f._glcanvas.data()[0].regl;if(b(t,e,r),h.dirty){if(!0===h.error2d&&(h.error2d=a(m)),!0===h.line2d&&(h.line2d=i(m)),!0===h.scatter2d&&(h.scatter2d=n(m)),!0===h.fill2d&&(h.fill2d=i(m)),!0===h.glText)for(h.glText=new Array(v),o=0;o<v;o++)h.glText[o]=new s(m);if(h.glText){if(v>h.glText.length){var y=v-h.glText.length;for(o=0;o<y;o++)h.glText.push(new s(m))}else if(v<h.glText.length){var x=h.glText.length-v;h.glText.splice(v,x).forEach(function(t){t.destroy()})}for(o=0;o<v;o++)h.glText[o].update(h.textOptions[o])}if(h.line2d&&(h.line2d.update(h.lineOptions),h.lineOptions=h.lineOptions.map(function(t){if(t&&t.positions){for(var e=t.positions,r=0;r<e.length&&(isNaN(e[r])||isNaN(e[r+1]));)r+=2;for(var n=e.length-2;n>r&&(isNaN(e[n])||isNaN(e[n+1]));)n-=2;t.positions=e.slice(r,n+2)}return t}),h.line2d.update(h.lineOptions)),h.error2d){var _=(h.errorXOptions||[]).concat(h.errorYOptions||[]);h.error2d.update(_)}h.scatter2d&&h.scatter2d.update(h.markerOptions),h.fillOrder=c.repeat(null,v),h.fill2d&&(h.fillOptions=h.fillOptions.map(function(t,e){var n=r[e];if(t&&n&&n[0]&&n[0].trace){var i,a,o=n[0],s=o.trace,l=o.t,c=h.lineOptions[e],u=[];s._ownfill&&u.push(e),s._nexttrace&&u.push(e+1),u.length&&(h.fillOrder[e]=u);var f,p,d=[],g=c&&c.positions||l.positions;if(\\\"tozeroy\\\"===s.fill){for(f=0;f<g.length&&isNaN(g[f+1]);)f+=2;for(p=g.length-2;p>f&&isNaN(g[p+1]);)p-=2;0!==g[f+1]&&(d=[g[f],0]),d=d.concat(g.slice(f,p+2)),0!==g[p+1]&&(d=d.concat([g[p],0]))}else if(\\\"tozerox\\\"===s.fill){for(f=0;f<g.length&&isNaN(g[f]);)f+=2;for(p=g.length-2;p>f&&isNaN(g[p]);)p-=2;0!==g[f]&&(d=[0,g[f+1]]),d=d.concat(g.slice(f,p+2)),0!==g[p]&&(d=d.concat([0,g[p+1]]))}else if(\\\"toself\\\"===s.fill||\\\"tonext\\\"===s.fill){for(d=[],i=0,a=0;a<g.length;a+=2)(isNaN(g[a])||isNaN(g[a+1]))&&((d=d.concat(g.slice(i,a))).push(g[i],g[i+1]),i=a+2);d=d.concat(g.slice(i)),i&&d.push(g[i],g[i+1])}else{var v=s._nexttrace;if(v){var m=h.lineOptions[e+1];if(m){var y=m.positions;if(\\\"tonexty\\\"===s.fill){for(d=g.slice(),e=Math.floor(y.length/2);e--;){var x=y[2*e],b=y[2*e+1];isNaN(x)||isNaN(b)||d.push(x,b)}t.fill=v.fillcolor}}}}if(s._prevtrace&&\\\"tonext\\\"===s._prevtrace.fill){var _=h.lineOptions[e-1].positions,w=d.length/2,k=[i=w];for(a=0;a<_.length;a+=2)(isNaN(_[a])||isNaN(_[a+1]))&&(k.push(a/2+w+1),i=a+2);d=d.concat(_),t.hole=k}return t.fillmode=s.fill,t.opacity=s.opacity,t.positions=d,t}}),h.fill2d.update(h.fillOptions))}var w=f.dragmode,k=\\\"lasso\\\"===w||\\\"select\\\"===w,T=f.clickmode.indexOf(\\\"select\\\")>-1;for(o=0;o<v;o++){var A=r[o][0],M=A.trace,S=A.t,E=S.index,C=M._length,z=S.x,O=S.y;if(M.selectedpoints||k||T){if(k||(k=!0),M.selectedpoints){var I=h.selectBatch[E]=c.selIndices2selPoints(M),D={};for(l=0;l<I.length;l++)D[I[l]]=1;var P=[];for(l=0;l<C;l++)D[l]||P.push(l);h.unselectBatch[E]=P}var R=S.xpx=new Array(C),F=S.ypx=new Array(C);for(l=0;l<C;l++)R[l]=p.c2p(z[l]),F[l]=g.c2p(O[l])}else S.xpx=S.ypx=null}if(k){if(h.select2d||(h.select2d=n(f._glcanvas.data()[1].regl)),h.scatter2d){var B=new Array(v);for(o=0;o<v;o++)B[o]=h.selectBatch[o].length||h.unselectBatch[o].length?h.markerUnselectedOptions[o]:{};h.scatter2d.update(B)}h.select2d&&(h.select2d.update(h.markerOptions),h.select2d.update(h.markerSelectedOptions)),h.glText&&r.forEach(function(t){var e=((t||[])[0]||{}).trace||{};d.hasText(e)&&L(t)})}else h.scatter2d&&h.scatter2d.update(h.markerOptions);var N={viewport:function(t,e,r){var n=t._size,i=t.width,a=t.height;return[n.l+e.domain[0]*n.w,n.b+r.domain[0]*n.h,i-n.r-(1-e.domain[1])*n.w,a-n.t-(1-r.domain[1])*n.h]}(f,p,g),range:[(p._rl||p.range)[0],(g._rl||g.range)[0],(p._rl||p.range)[1],(g._rl||g.range)[1]]},j=c.repeat(N,h.count);h.fill2d&&h.fill2d.update(j),h.line2d&&h.line2d.update(j),h.error2d&&h.error2d.update(j.concat(j)),h.scatter2d&&h.scatter2d.update(j),h.select2d&&h.select2d.update(j),h.glText&&h.glText.forEach(function(t){t.update(N)})}else h.init()}},hoverPoints:function(t,e,r,n){var i,a,o,s,l,c,u,f,h,p=t.cd,d=p[0].t,g=p[0].trace,v=t.xa,m=t.ya,y=d.x,x=d.y,b=v.c2p(e),_=m.c2p(r),w=t.distance;if(d.tree){var k=v.p2c(b-w),T=v.p2c(b+w),A=m.p2c(_-w),M=m.p2c(_+w);i=\\\"x\\\"===n?d.tree.range(Math.min(k,T),Math.min(m._rl[0],m._rl[1]),Math.max(k,T),Math.max(m._rl[0],m._rl[1])):d.tree.range(Math.min(k,T),Math.min(A,M),Math.max(k,T),Math.max(A,M))}else{if(!d.ids)return[t];i=d.ids}var S=w;if(\\\"x\\\"===n)for(l=0;l<i.length;l++)o=y[i[l]],(c=Math.abs(v.c2p(o)-b))<S&&(S=c,u=m.c2p(x[i[l]])-_,h=Math.sqrt(c*c+u*u),a=i[l]);else for(l=i.length-1;l>-1;l--)o=y[i[l]],s=x[i[l]],c=v.c2p(o)-b,u=m.c2p(s)-_,(f=Math.sqrt(c*c+u*u))<S&&(S=h=f,a=i[l]);return t.index=a,t.distance=S,t.dxy=h,void 0===a?[t]:(C(t,y,x,g),[t])},selectPoints:function(t,e){var r=t.cd,n=[],i=r[0].trace,a=r[0].t,o=i._length,s=a.x,l=a.y,c=a._scene,u=a.index;if(!c)return n;var f=d.hasText(i),h=d.hasMarkers(i),p=!h&&!f;if(!0!==i.visible||p)return n;var g=[],v=[];if(!1!==e&&!e.degenerate)for(var m=0;m<o;m++)e.contains([a.xpx[m],a.ypx[m]],!1,m,t)?(g.push(m),n.push({pointNumber:m,x:s[m],y:l[m]})):v.push(m);if(h){var y=c.scatter2d;if(g.length||v.length){if(!c.selectBatch[u].length&&!c.unselectBatch[u].length){var x=new Array(c.count);x[u]=c.markerUnselectedOptions[u],y.update.apply(y,x)}}else{var b=new Array(c.count);b[u]=c.markerOptions[u],y.update.apply(y,b)}}return c.selectBatch[u]=g,c.unselectBatch[u]=v,f&&L(r),n},sceneUpdate:E,calcHover:C,meta:{}}},{\\\"../../components/color\\\":580,\\\"../../constants/interactions\\\":679,\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"../../lib/prepare_regl\\\":716,\\\"../../plots/cartesian\\\":762,\\\"../../plots/cartesian/autorange\\\":750,\\\"../../plots/cartesian/axis_ids\\\":754,\\\"../../registry\\\":831,\\\"../scatter/calc\\\":1076,\\\"../scatter/colorscale_calc\\\":1078,\\\"../scatter/cross_trace_defaults\\\":1081,\\\"../scatter/get_trace_color\\\":1084,\\\"../scatter/link_traces\\\":1090,\\\"../scatter/marker_colorbar\\\":1092,\\\"../scatter/subtypes\\\":1098,\\\"./attributes\\\":1123,\\\"./constants\\\":1124,\\\"./convert\\\":1125,\\\"./defaults\\\":1126,\\\"gl-text\\\":316,\\\"point-cluster\\\":464,\\\"regl-error2d\\\":485,\\\"regl-line2d\\\":486,\\\"regl-scatter2d\\\":487}],1128:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/fx/hovertemplate_attributes\\\"),i=t(\\\"../scattergeo/attributes\\\"),a=t(\\\"../scatter/attributes\\\"),o=t(\\\"../../plots/mapbox/layout_attributes\\\"),s=t(\\\"../../plots/attributes\\\"),l=t(\\\"../../components/colorscale/attributes\\\"),c=t(\\\"../../lib/extend\\\").extendFlat,u=t(\\\"../../plot_api/edit_types\\\").overrideAll,f=i.line,h=i.marker;e.exports=u({lon:i.lon,lat:i.lat,mode:c({},a.mode,{dflt:\\\"markers\\\"}),text:c({},a.text,{}),hovertext:c({},a.hovertext,{}),line:{color:f.color,width:f.width},connectgaps:a.connectgaps,marker:c({symbol:{valType:\\\"string\\\",dflt:\\\"circle\\\",arrayOk:!0},opacity:h.opacity,size:h.size,sizeref:h.sizeref,sizemin:h.sizemin,sizemode:h.sizemode},l(\\\"marker\\\")),fill:i.fill,fillcolor:a.fillcolor,textfont:o.layers.symbol.textfont,textposition:o.layers.symbol.textposition,selected:{marker:a.selected.marker},unselected:{marker:a.unselected.marker},hoverinfo:c({},s.hoverinfo,{flags:[\\\"lon\\\",\\\"lat\\\",\\\"text\\\",\\\"name\\\"]}),hovertemplate:n()},\\\"calc\\\",\\\"nested\\\")},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plot_api/edit_types\\\":734,\\\"../../plots/attributes\\\":748,\\\"../../plots/mapbox/layout_attributes\\\":808,\\\"../scatter/attributes\\\":1075,\\\"../scattergeo/attributes\\\":1114}],1129:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../constants/numerical\\\").BADNUM,o=t(\\\"../../lib/geojson_utils\\\"),s=t(\\\"../../components/colorscale\\\"),l=t(\\\"../../components/drawing\\\"),c=t(\\\"../scatter/make_bubble_size_func\\\"),u=t(\\\"../scatter/subtypes\\\"),f=t(\\\"../../plots/mapbox/convert_text_opts\\\");function h(){return{geojson:o.makeBlank(),layout:{visibility:\\\"none\\\"},paint:{}}}function p(t){return i.isArrayOrTypedArray(t)?function(t){return t}:t?function(){return t}:d}function d(){return\\\"\\\"}function g(t){return t[0]===a}e.exports=function(t){var e,r=t[0].trace,a=!0===r.visible&&0!==r._length,v=\\\"none\\\"!==r.fill,m=u.hasLines(r),y=u.hasMarkers(r),x=u.hasText(r),b=y&&\\\"circle\\\"===r.marker.symbol,_=y&&\\\"circle\\\"!==r.marker.symbol,w=h(),k=h(),T=h(),A=h(),M={fill:w,line:k,circle:T,symbol:A};if(!a)return M;if((v||m)&&(e=o.calcTraceToLineCoords(t)),v&&(w.geojson=o.makePolygon(e),w.layout.visibility=\\\"visible\\\",i.extendFlat(w.paint,{\\\"fill-color\\\":r.fillcolor})),m&&(k.geojson=o.makeLine(e),k.layout.visibility=\\\"visible\\\",i.extendFlat(k.paint,{\\\"line-width\\\":r.line.width,\\\"line-color\\\":r.line.color,\\\"line-opacity\\\":r.opacity})),b){var S=function(t){var e,r,a,o,u=t[0].trace,f=u.marker,h=u.selectedpoints,p=i.isArrayOrTypedArray(f.color),d=i.isArrayOrTypedArray(f.size),v=i.isArrayOrTypedArray(f.opacity);function m(t){return u.opacity*t}p&&(r=s.hasColorscale(u,\\\"marker\\\")?s.makeColorScaleFuncFromTrace(f):i.identity);d&&(a=c(u));v&&(o=function(t){var e=n(t)?+i.constrain(t,0,1):0;return m(e)});var y,x=[];for(e=0;e<t.length;e++){var b=t[e],_=b.lonlat;if(!g(_)){var w={};r&&(w.mcc=b.mcc=r(b.mc)),a&&(w.mrc=b.mrc=a(b.ms)),o&&(w.mo=o(b.mo)),h&&(w.selected=b.selected||0),x.push({type:\\\"Feature\\\",geometry:{type:\\\"Point\\\",coordinates:_},properties:w})}}if(h)for(y=l.makeSelectedPointStyleFns(u),e=0;e<x.length;e++){var k=x[e].properties;y.selectedOpacityFn&&(k.mo=m(y.selectedOpacityFn(k))),y.selectedColorFn&&(k.mcc=y.selectedColorFn(k)),y.selectedSizeFn&&(k.mrc=y.selectedSizeFn(k))}return{geojson:{type:\\\"FeatureCollection\\\",features:x},mcc:p||y&&y.selectedColorFn?{type:\\\"identity\\\",property:\\\"mcc\\\"}:f.color,mrc:d||y&&y.selectedSizeFn?{type:\\\"identity\\\",property:\\\"mrc\\\"}:(T=f.size,T/2),mo:v||y&&y.selectedOpacityFn?{type:\\\"identity\\\",property:\\\"mo\\\"}:m(f.opacity)};var T}(t);T.geojson=S.geojson,T.layout.visibility=\\\"visible\\\",i.extendFlat(T.paint,{\\\"circle-color\\\":S.mcc,\\\"circle-radius\\\":S.mrc,\\\"circle-opacity\\\":S.mo})}if((_||x)&&(A.geojson=function(t){for(var e=t[0].trace,r=(e.marker||{}).symbol,n=e.text,i=\\\"circle\\\"!==r?p(r):d,a=u.hasText(e)?p(n):d,o=[],s=0;s<t.length;s++){var l=t[s];g(l.lonlat)||o.push({type:\\\"Feature\\\",geometry:{type:\\\"Point\\\",coordinates:l.lonlat},properties:{symbol:i(l.mx),text:a(l.tx)}})}return{type:\\\"FeatureCollection\\\",features:o}}(t),i.extendFlat(A.layout,{visibility:\\\"visible\\\",\\\"icon-image\\\":\\\"{symbol}-15\\\",\\\"text-field\\\":\\\"{text}\\\"}),_&&(i.extendFlat(A.layout,{\\\"icon-size\\\":r.marker.size/10}),i.extendFlat(A.paint,{\\\"icon-opacity\\\":r.opacity*r.marker.opacity,\\\"icon-color\\\":r.marker.color})),x)){var E=(r.marker||{}).size,C=f(r.textposition,E);i.extendFlat(A.layout,{\\\"text-size\\\":r.textfont.size,\\\"text-anchor\\\":C.anchor,\\\"text-offset\\\":C.offset}),i.extendFlat(A.paint,{\\\"text-color\\\":r.textfont.color,\\\"text-opacity\\\":r.opacity})}return M}},{\\\"../../components/colorscale\\\":592,\\\"../../components/drawing\\\":601,\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"../../lib/geojson_utils\\\":697,\\\"../../plots/mapbox/convert_text_opts\\\":805,\\\"../scatter/make_bubble_size_func\\\":1091,\\\"../scatter/subtypes\\\":1098,\\\"fast-isnumeric\\\":224}],1130:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../scatter/subtypes\\\"),a=t(\\\"../scatter/marker_defaults\\\"),o=t(\\\"../scatter/line_defaults\\\"),s=t(\\\"../scatter/text_defaults\\\"),l=t(\\\"../scatter/fillcolor_defaults\\\"),c=t(\\\"./attributes\\\");e.exports=function(t,e,r,u){function f(r,i){return n.coerce(t,e,c,r,i)}if(function(t,e,r){var n=r(\\\"lon\\\")||[],i=r(\\\"lat\\\")||[],a=Math.min(n.length,i.length);return e._length=a,a}(0,e,f)){if(f(\\\"text\\\"),f(\\\"hovertext\\\"),f(\\\"hovertemplate\\\"),f(\\\"mode\\\"),i.hasLines(e)&&(o(t,e,r,u,f,{noDash:!0}),f(\\\"connectgaps\\\")),i.hasMarkers(e)){a(t,e,r,u,f,{noLine:!0});var h=e.marker;\\\"circle\\\"!==h.symbol&&(n.isArrayOrTypedArray(h.size)&&(h.size=h.size[0]),n.isArrayOrTypedArray(h.color)&&(h.color=h.color[0]))}i.hasText(e)&&s(t,e,u,f,{noSelect:!0}),f(\\\"fill\\\"),\\\"none\\\"!==e.fill&&l(t,e,r,f),n.coerceSelectionMarkerOpacity(e,f)}else e.visible=!1}},{\\\"../../lib\\\":703,\\\"../scatter/fillcolor_defaults\\\":1083,\\\"../scatter/line_defaults\\\":1087,\\\"../scatter/marker_defaults\\\":1093,\\\"../scatter/subtypes\\\":1098,\\\"../scatter/text_defaults\\\":1099,\\\"./attributes\\\":1128}],1131:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e){return t.lon=e.lon,t.lat=e.lat,t}},{}],1132:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/fx\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../scatter/get_trace_color\\\"),o=i.fillText,s=t(\\\"../../constants/numerical\\\").BADNUM;e.exports=function(t,e,r){var l=t.cd,c=l[0].trace,u=t.xa,f=t.ya,h=t.subplot,p=360*(e>=0?Math.floor((e+180)/360):Math.ceil((e-180)/360)),d=e-p;if(n.getClosest(l,function(t){var e=t.lonlat;if(e[0]===s)return 1/0;var n=i.modHalf(e[0],360),a=e[1],o=h.project([n,a]),l=o.x-u.c2p([d,a]),c=o.y-f.c2p([n,r]),p=Math.max(3,t.mrc||0);return Math.max(Math.sqrt(l*l+c*c)-p,1-3/p)},t),!1!==t.index){var g=l[t.index],v=g.lonlat,m=[i.modHalf(v[0],360)+p,v[1]],y=u.c2p(m),x=f.c2p(m),b=g.mrc||1;return t.x0=y-b,t.x1=y+b,t.y0=x-b,t.y1=x+b,t.color=a(c,g),t.extraText=function(t,e,r){if(t.hovertemplate)return;var n=(e.hi||t.hoverinfo).split(\\\"+\\\"),i=-1!==n.indexOf(\\\"all\\\"),a=-1!==n.indexOf(\\\"lon\\\"),s=-1!==n.indexOf(\\\"lat\\\"),l=e.lonlat,c=[];function u(t){return t+\\\"\\\\xb0\\\"}i||a&&s?c.push(\\\"(\\\"+u(l[0])+\\\", \\\"+u(l[1])+\\\")\\\"):a?c.push(r.lon+u(l[0])):s&&c.push(r.lat+u(l[1]));(i||-1!==n.indexOf(\\\"text\\\"))&&o(e,t,c);return c.join(\\\"<br>\\\")}(c,g,l[0].t.labels),t.hovertemplate=c.hovertemplate,[t]}}},{\\\"../../components/fx\\\":619,\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"../scatter/get_trace_color\\\":1084}],1133:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),colorbar:t(\\\"../scatter/marker_colorbar\\\"),calc:t(\\\"../scattergeo/calc\\\"),plot:t(\\\"./plot\\\"),hoverPoints:t(\\\"./hover\\\"),eventData:t(\\\"./event_data\\\"),selectPoints:t(\\\"./select\\\"),style:function(t,e){e&&e[0].trace._glTrace.update(e)},moduleType:\\\"trace\\\",name:\\\"scattermapbox\\\",basePlotModule:t(\\\"../../plots/mapbox\\\"),categories:[\\\"mapbox\\\",\\\"gl\\\",\\\"symbols\\\",\\\"showLegend\\\",\\\"scatterlike\\\"],meta:{}}},{\\\"../../plots/mapbox\\\":806,\\\"../scatter/marker_colorbar\\\":1092,\\\"../scattergeo/calc\\\":1115,\\\"./attributes\\\":1128,\\\"./defaults\\\":1130,\\\"./event_data\\\":1131,\\\"./hover\\\":1132,\\\"./plot\\\":1134,\\\"./select\\\":1135}],1134:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./convert\\\");function i(t,e){this.subplot=t,this.uid=e,this.sourceIds={fill:e+\\\"-source-fill\\\",line:e+\\\"-source-line\\\",circle:e+\\\"-source-circle\\\",symbol:e+\\\"-source-symbol\\\"},this.layerIds={fill:e+\\\"-layer-fill\\\",line:e+\\\"-layer-line\\\",circle:e+\\\"-layer-circle\\\",symbol:e+\\\"-layer-symbol\\\"},this.order=[\\\"fill\\\",\\\"line\\\",\\\"circle\\\",\\\"symbol\\\"]}var a=i.prototype;a.addSource=function(t,e){this.subplot.map.addSource(this.sourceIds[t],{type:\\\"geojson\\\",data:e.geojson})},a.setSourceData=function(t,e){this.subplot.map.getSource(this.sourceIds[t]).setData(e.geojson)},a.addLayer=function(t,e){this.subplot.map.addLayer({type:t,id:this.layerIds[t],source:this.sourceIds[t],layout:e.layout,paint:e.paint})},a.update=function(t){for(var e=this.subplot,r=n(t),i=0;i<this.order.length;i++){var a=this.order[i],o=r[a];e.setOptions(this.layerIds[a],\\\"setLayoutProperty\\\",o.layout),\\\"visible\\\"===o.layout.visibility&&(this.setSourceData(a,o),e.setOptions(this.layerIds[a],\\\"setPaintProperty\\\",o.paint))}t[0].trace._glTrace=this},a.dispose=function(){for(var t=this.subplot.map,e=0;e<this.order.length;e++){var r=this.order[e];t.removeLayer(this.layerIds[r]),t.removeSource(this.sourceIds[r])}},e.exports=function(t,e){for(var r=new i(t,e[0].trace.uid),a=n(e),o=0;o<r.order.length;o++){var s=r.order[o],l=a[s];r.addSource(s,l),r.addLayer(s,l)}return e[0].trace._glTrace=r,r}},{\\\"./convert\\\":1129}],1135:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../scatter/subtypes\\\"),a=t(\\\"../../constants/numerical\\\").BADNUM;e.exports=function(t,e){var r,o=t.cd,s=t.xaxis,l=t.yaxis,c=[],u=o[0].trace;if(!i.hasMarkers(u))return[];if(!1===e)for(r=0;r<o.length;r++)o[r].selected=0;else for(r=0;r<o.length;r++){var f=o[r],h=f.lonlat;if(h[0]!==a){var p=[n.modHalf(h[0],360),h[1]],d=[s.c2p(p),l.c2p(p)];e.contains(d,null,r,t)?(c.push({pointNumber:r,lon:h[0],lat:h[1]}),f.selected=1):f.selected=0}}return c}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"../scatter/subtypes\\\":1098}],1136:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/fx/hovertemplate_attributes\\\"),i=t(\\\"../../lib/extend\\\").extendFlat,a=t(\\\"../scatter/attributes\\\"),o=t(\\\"../../plots/attributes\\\"),s=a.line;e.exports={mode:a.mode,r:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},theta:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},r0:{valType:\\\"any\\\",dflt:0,editType:\\\"calc+clearAxisTypes\\\"},dr:{valType:\\\"number\\\",dflt:1,editType:\\\"calc\\\"},theta0:{valType:\\\"any\\\",dflt:0,editType:\\\"calc+clearAxisTypes\\\"},dtheta:{valType:\\\"number\\\",editType:\\\"calc\\\"},thetaunit:{valType:\\\"enumerated\\\",values:[\\\"radians\\\",\\\"degrees\\\",\\\"gradians\\\"],dflt:\\\"degrees\\\",editType:\\\"calc+clearAxisTypes\\\"},text:a.text,hovertext:a.hovertext,line:{color:s.color,width:s.width,dash:s.dash,shape:i({},s.shape,{values:[\\\"linear\\\",\\\"spline\\\"]}),smoothing:s.smoothing,editType:\\\"calc\\\"},connectgaps:a.connectgaps,marker:a.marker,cliponaxis:i({},a.cliponaxis,{dflt:!1}),textposition:a.textposition,textfont:a.textfont,fill:i({},a.fill,{values:[\\\"none\\\",\\\"toself\\\",\\\"tonext\\\"],dflt:\\\"none\\\"}),fillcolor:a.fillcolor,hoverinfo:i({},o.hoverinfo,{flags:[\\\"r\\\",\\\"theta\\\",\\\"text\\\",\\\"name\\\"]}),hoveron:a.hoveron,hovertemplate:n(),selected:a.selected,unselected:a.unselected}},{\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plots/attributes\\\":748,\\\"../scatter/attributes\\\":1075}],1137:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../../constants/numerical\\\").BADNUM,a=t(\\\"../../plots/cartesian/axes\\\"),o=t(\\\"../scatter/colorscale_calc\\\"),s=t(\\\"../scatter/arrays_to_calcdata\\\"),l=t(\\\"../scatter/calc_selection\\\"),c=t(\\\"../scatter/calc\\\").calcMarkerSize;e.exports=function(t,e){for(var r=t._fullLayout,u=e.subplot,f=r[u].radialaxis,h=r[u].angularaxis,p=f.makeCalcdata(e,\\\"r\\\"),d=h.makeCalcdata(e,\\\"theta\\\"),g=e._length,v=new Array(g),m=0;m<g;m++){var y=p[m],x=d[m],b=v[m]={};n(y)&&n(x)?(b.r=y,b.theta=x):b.r=i}var _=c(e,g);return e._extremes.x=a.findExtremes(f,p,{ppad:_}),o(t,e),s(v,e),l(v,e),v}},{\\\"../../constants/numerical\\\":680,\\\"../../plots/cartesian/axes\\\":751,\\\"../scatter/arrays_to_calcdata\\\":1074,\\\"../scatter/calc\\\":1076,\\\"../scatter/calc_selection\\\":1077,\\\"../scatter/colorscale_calc\\\":1078,\\\"fast-isnumeric\\\":224}],1138:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../scatter/subtypes\\\"),a=t(\\\"../scatter/marker_defaults\\\"),o=t(\\\"../scatter/line_defaults\\\"),s=t(\\\"../scatter/line_shape_defaults\\\"),l=t(\\\"../scatter/text_defaults\\\"),c=t(\\\"../scatter/fillcolor_defaults\\\"),u=t(\\\"../scatter/constants\\\").PTS_LINESONLY,f=t(\\\"./attributes\\\");function h(t,e,r,n){var i,a=n(\\\"r\\\"),o=n(\\\"theta\\\");if(a)o?i=Math.min(a.length,o.length):(i=a.length,n(\\\"theta0\\\"),n(\\\"dtheta\\\"));else{if(!o)return 0;i=e.theta.length,n(\\\"r0\\\"),n(\\\"dr\\\")}return e._length=i,i}e.exports={handleRThetaDefaults:h,supplyDefaults:function(t,e,r,p){function d(r,i){return n.coerce(t,e,f,r,i)}var g=h(0,e,0,d);if(g){d(\\\"thetaunit\\\"),d(\\\"mode\\\",g<u?\\\"lines+markers\\\":\\\"lines\\\"),d(\\\"text\\\"),d(\\\"hovertext\\\"),\\\"fills\\\"!==e.hoveron&&d(\\\"hovertemplate\\\"),i.hasLines(e)&&(o(t,e,r,p,d),s(t,e,d),d(\\\"connectgaps\\\")),i.hasMarkers(e)&&a(t,e,r,p,d,{gradient:!0}),i.hasText(e)&&l(t,e,p,d);var v=[];(i.hasMarkers(e)||i.hasText(e))&&(d(\\\"cliponaxis\\\"),d(\\\"marker.maxdisplayed\\\"),v.push(\\\"points\\\")),d(\\\"fill\\\"),\\\"none\\\"!==e.fill&&(c(t,e,r,d),i.hasLines(e)||s(t,e,d)),\\\"tonext\\\"!==e.fill&&\\\"toself\\\"!==e.fill||v.push(\\\"fills\\\"),d(\\\"hoveron\\\",v.join(\\\"+\\\")||\\\"points\\\"),n.coerceSelectionMarkerOpacity(e,d)}else e.visible=!1}}},{\\\"../../lib\\\":703,\\\"../scatter/constants\\\":1079,\\\"../scatter/fillcolor_defaults\\\":1083,\\\"../scatter/line_defaults\\\":1087,\\\"../scatter/line_shape_defaults\\\":1089,\\\"../scatter/marker_defaults\\\":1093,\\\"../scatter/subtypes\\\":1098,\\\"../scatter/text_defaults\\\":1099,\\\"./attributes\\\":1136}],1139:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../scatter/hover\\\"),i=t(\\\"../../plots/cartesian/axes\\\"),a=t(\\\"../../lib\\\");function o(t,e,r,n){var o=r.radialAxis,s=r.angularAxis;o._hovertitle=\\\"r\\\",s._hovertitle=\\\"\\\\u03b8\\\";var l=t.hi||e.hoverinfo,c=[];function u(t,e){c.push(t._hovertitle+\\\": \\\"+i.tickText(t,e,\\\"hover\\\").text)}if(!e.hovertemplate){var f=l.split(\\\"+\\\");if(-1!==f.indexOf(\\\"all\\\")&&(f=[\\\"r\\\",\\\"theta\\\",\\\"text\\\"]),-1!==f.indexOf(\\\"r\\\")&&u(o,o.c2l(t.r)),-1!==f.indexOf(\\\"theta\\\")){var h=t.theta;u(s,\\\"degrees\\\"===s.thetaunit?a.rad2deg(h):h)}-1!==f.indexOf(\\\"text\\\")&&n.text&&(c.push(n.text),delete n.text),n.extraText=c.join(\\\"<br>\\\")}}e.exports={hoverPoints:function(t,e,r,i){var a=n(t,e,r,i);if(a&&!1!==a[0].index){var s=a[0];if(void 0===s.index)return a;var l=t.subplot,c=s.cd[s.index],u=s.trace;if(l.isPtInside(c))return s.xLabelVal=void 0,s.yLabelVal=void 0,o(c,u,l,s),s.hovertemplate=u.hovertemplate,a}},makeHoverPointText:o}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"../scatter/hover\\\":1085}],1140:[function(t,e,r){\\\"use strict\\\";e.exports={moduleType:\\\"trace\\\",name:\\\"scatterpolar\\\",basePlotModule:t(\\\"../../plots/polar\\\"),categories:[\\\"polar\\\",\\\"symbols\\\",\\\"showLegend\\\",\\\"scatter-like\\\"],attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\").supplyDefaults,colorbar:t(\\\"../scatter/marker_colorbar\\\"),calc:t(\\\"./calc\\\"),plot:t(\\\"./plot\\\"),style:t(\\\"../scatter/style\\\").style,hoverPoints:t(\\\"./hover\\\").hoverPoints,selectPoints:t(\\\"../scatter/select\\\"),meta:{}}},{\\\"../../plots/polar\\\":815,\\\"../scatter/marker_colorbar\\\":1092,\\\"../scatter/select\\\":1095,\\\"../scatter/style\\\":1097,\\\"./attributes\\\":1136,\\\"./calc\\\":1137,\\\"./defaults\\\":1138,\\\"./hover\\\":1139,\\\"./plot\\\":1141}],1141:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../scatter/plot\\\"),i=t(\\\"../../constants/numerical\\\").BADNUM;e.exports=function(t,e,r){for(var a=e.layers.frontplot.select(\\\"g.scatterlayer\\\"),o={xaxis:e.xaxis,yaxis:e.yaxis,plot:e.framework,layerClipId:e._hasClipOnAxisFalse?e.clipIds.forTraces:null},s=e.radialAxis,l=e.angularAxis,c=0;c<r.length;c++)for(var u=r[c],f=0;f<u.length;f++){var h=u[f],p=h.r;if(p===i)h.x=h.y=i;else{var d=s.c2g(p),g=l.c2g(h.theta);h.x=d*Math.cos(g),h.y=d*Math.sin(g)}}n(t,o,r,a)}},{\\\"../../constants/numerical\\\":680,\\\"../scatter/plot\\\":1094}],1142:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../scatterpolar/attributes\\\"),i=t(\\\"../scattergl/attributes\\\");e.exports={mode:n.mode,r:n.r,theta:n.theta,r0:n.r0,dr:n.dr,theta0:n.theta0,dtheta:n.dtheta,thetaunit:n.thetaunit,text:n.text,hovertext:n.hovertext,hovertemplate:n.hovertemplate,line:i.line,connectgaps:i.connectgaps,marker:i.marker,fill:i.fill,fillcolor:i.fillcolor,textposition:i.textposition,textfont:i.textfont,hoverinfo:n.hoverinfo,selected:n.selected,unselected:n.unselected}},{\\\"../scattergl/attributes\\\":1123,\\\"../scatterpolar/attributes\\\":1136}],1143:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../scatter/subtypes\\\"),a=t(\\\"../scatterpolar/defaults\\\").handleRThetaDefaults,o=t(\\\"../scatter/marker_defaults\\\"),s=t(\\\"../scatter/line_defaults\\\"),l=t(\\\"../scatter/text_defaults\\\"),c=t(\\\"../scatter/fillcolor_defaults\\\"),u=t(\\\"../scatter/constants\\\").PTS_LINESONLY,f=t(\\\"./attributes\\\");e.exports=function(t,e,r,h){function p(r,i){return n.coerce(t,e,f,r,i)}var d=a(t,e,h,p);d?(p(\\\"thetaunit\\\"),p(\\\"mode\\\",d<u?\\\"lines+markers\\\":\\\"lines\\\"),p(\\\"text\\\"),p(\\\"hovertext\\\"),\\\"fills\\\"!==e.hoveron&&p(\\\"hovertemplate\\\"),i.hasLines(e)&&(s(t,e,r,h,p),p(\\\"connectgaps\\\")),i.hasMarkers(e)&&o(t,e,r,h,p),i.hasText(e)&&l(t,e,h,p),p(\\\"fill\\\"),\\\"none\\\"!==e.fill&&c(t,e,r,p),n.coerceSelectionMarkerOpacity(e,p)):e.visible=!1}},{\\\"../../lib\\\":703,\\\"../scatter/constants\\\":1079,\\\"../scatter/fillcolor_defaults\\\":1083,\\\"../scatter/line_defaults\\\":1087,\\\"../scatter/marker_defaults\\\":1093,\\\"../scatter/subtypes\\\":1098,\\\"../scatter/text_defaults\\\":1099,\\\"../scatterpolar/defaults\\\":1138,\\\"./attributes\\\":1142}],1144:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"point-cluster\\\"),i=t(\\\"fast-isnumeric\\\"),a=t(\\\"../scattergl\\\"),o=t(\\\"../scatter/colorscale_calc\\\"),s=t(\\\"../scatter/calc\\\").calcMarkerSize,l=t(\\\"../scattergl/convert\\\"),c=t(\\\"../../lib\\\"),u=t(\\\"../../plots/cartesian/axes\\\"),f=t(\\\"../scatterpolar/hover\\\").makeHoverPointText,h=t(\\\"../scattergl/constants\\\").TOO_MANY_POINTS;e.exports={moduleType:\\\"trace\\\",name:\\\"scatterpolargl\\\",basePlotModule:t(\\\"../../plots/polar\\\"),categories:[\\\"gl\\\",\\\"regl\\\",\\\"polar\\\",\\\"symbols\\\",\\\"showLegend\\\",\\\"scatter-like\\\"],attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),colorbar:t(\\\"../scatter/marker_colorbar\\\"),calc:function(t,e){var r=t._fullLayout,n=e.subplot,i=r[n].radialaxis,a=r[n].angularaxis,c=i.makeCalcdata(e,\\\"r\\\"),f=a.makeCalcdata(e,\\\"theta\\\"),p=e._length,d={};p<c.length&&(c=c.slice(0,p)),p<f.length&&(f=f.slice(0,p)),d.r=c,d.theta=f,o(t,e);var g,v=d.opts=l.style(t,e);return p<h?g=s(e,p):v.marker&&(g=2*(v.marker.sizeAvg||Math.max(v.marker.size,3))),e._extremes.x=u.findExtremes(i,c,{ppad:g}),[{x:!1,y:!1,t:d,trace:e}]},plot:function(t,e,r){if(r.length){var o=e.radialAxis,s=e.angularAxis,u=a.sceneUpdate(t,e);return r.forEach(function(r){if(r&&r[0]&&r[0].trace){var a,f=r[0],p=f.trace,d=f.t,g=p._length,v=d.r,m=d.theta,y=d.opts,x=v.slice(),b=m.slice();for(a=0;a<v.length;a++)e.isPtInside({r:v[a],theta:m[a]})||(x[a]=NaN,b[a]=NaN);var _=new Array(2*g),w=Array(g),k=Array(g);for(a=0;a<g;a++){var T,A,M=x[a];if(i(M)){var S=o.c2g(M),E=s.c2g(b[a],p.thetaunit);T=S*Math.cos(E),A=S*Math.sin(E)}else T=A=NaN;w[a]=_[2*a]=T,k[a]=_[2*a+1]=A}d.tree=n(_),y.marker&&g>=h&&(y.marker.cluster=d.tree),y.marker&&(y.markerSel.positions=y.markerUnsel.positions=y.marker.positions=_),y.line&&_.length>1&&c.extendFlat(y.line,l.linePositions(t,p,_)),y.text&&(c.extendFlat(y.text,{positions:_},l.textPosition(t,p,y.text,y.marker)),c.extendFlat(y.textSel,{positions:_},l.textPosition(t,p,y.text,y.markerSel)),c.extendFlat(y.textUnsel,{positions:_},l.textPosition(t,p,y.text,y.markerUnsel))),y.fill&&!u.fill2d&&(u.fill2d=!0),y.marker&&!u.scatter2d&&(u.scatter2d=!0),y.line&&!u.line2d&&(u.line2d=!0),y.text&&!u.glText&&(u.glText=!0),u.lineOptions.push(y.line),u.fillOptions.push(y.fill),u.markerOptions.push(y.marker),u.markerSelectedOptions.push(y.markerSel),u.markerUnselectedOptions.push(y.markerUnsel),u.textOptions.push(y.text),u.textSelectedOptions.push(y.textSel),u.textUnselectedOptions.push(y.textUnsel),u.selectBatch.push([]),u.unselectBatch.push([]),d.x=w,d.y=k,d.rawx=w,d.rawy=k,d.r=v,d.theta=m,d.positions=_,d._scene=u,d.index=u.count,u.count++}}),a.plot(t,e,r)}},hoverPoints:function(t,e,r,n){var i=t.cd[0].t,o=i.r,s=i.theta,l=a.hoverPoints(t,e,r,n);if(l&&!1!==l[0].index){var c=l[0];if(void 0===c.index)return l;var u=t.subplot,h=c.cd[c.index],p=c.trace;if(h.r=o[c.index],h.theta=s[c.index],u.isPtInside(h))return c.xLabelVal=void 0,c.yLabelVal=void 0,f(h,p,u,c),l}},selectPoints:a.selectPoints,meta:{}}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"../../plots/polar\\\":815,\\\"../scatter/calc\\\":1076,\\\"../scatter/colorscale_calc\\\":1078,\\\"../scatter/marker_colorbar\\\":1092,\\\"../scattergl\\\":1127,\\\"../scattergl/constants\\\":1124,\\\"../scattergl/convert\\\":1125,\\\"../scatterpolar/hover\\\":1139,\\\"./attributes\\\":1142,\\\"./defaults\\\":1143,\\\"fast-isnumeric\\\":224,\\\"point-cluster\\\":464}],1145:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/fx/hovertemplate_attributes\\\"),i=t(\\\"../scatter/attributes\\\"),a=t(\\\"../../plots/attributes\\\"),o=t(\\\"../../components/colorscale/attributes\\\"),s=t(\\\"../../components/drawing/attributes\\\").dash,l=t(\\\"../../lib/extend\\\").extendFlat,c=i.marker,u=i.line,f=c.line;e.exports={a:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},b:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},c:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},sum:{valType:\\\"number\\\",dflt:0,min:0,editType:\\\"calc\\\"},mode:l({},i.mode,{dflt:\\\"markers\\\"}),text:l({},i.text,{}),hovertext:l({},i.hovertext,{}),line:{color:u.color,width:u.width,dash:s,shape:l({},u.shape,{values:[\\\"linear\\\",\\\"spline\\\"]}),smoothing:u.smoothing,editType:\\\"calc\\\"},connectgaps:i.connectgaps,cliponaxis:i.cliponaxis,fill:l({},i.fill,{values:[\\\"none\\\",\\\"toself\\\",\\\"tonext\\\"],dflt:\\\"none\\\"}),fillcolor:i.fillcolor,marker:l({symbol:c.symbol,opacity:c.opacity,maxdisplayed:c.maxdisplayed,size:c.size,sizeref:c.sizeref,sizemin:c.sizemin,sizemode:c.sizemode,line:l({width:f.width,editType:\\\"calc\\\"},o(\\\"marker.line\\\")),gradient:c.gradient,editType:\\\"calc\\\"},o(\\\"marker\\\")),textfont:i.textfont,textposition:i.textposition,selected:i.selected,unselected:i.unselected,hoverinfo:l({},a.hoverinfo,{flags:[\\\"a\\\",\\\"b\\\",\\\"c\\\",\\\"text\\\",\\\"name\\\"]}),hoveron:i.hoveron,hovertemplate:n()}},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/drawing/attributes\\\":600,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plots/attributes\\\":748,\\\"../scatter/attributes\\\":1075}],1146:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"fast-isnumeric\\\"),i=t(\\\"../scatter/colorscale_calc\\\"),a=t(\\\"../scatter/arrays_to_calcdata\\\"),o=t(\\\"../scatter/calc_selection\\\"),s=t(\\\"../scatter/calc\\\").calcMarkerSize,l=[\\\"a\\\",\\\"b\\\",\\\"c\\\"],c={a:[\\\"b\\\",\\\"c\\\"],b:[\\\"a\\\",\\\"c\\\"],c:[\\\"a\\\",\\\"b\\\"]};e.exports=function(t,e){var r,u,f,h,p,d,g=t._fullLayout[e.subplot].sum,v=e.sum||g,m={a:e.a,b:e.b,c:e.c};for(r=0;r<l.length;r++)if(!m[f=l[r]]){for(p=m[c[f][0]],d=m[c[f][1]],h=new Array(p.length),u=0;u<p.length;u++)h[u]=v-p[u]-d[u];m[f]=h}var y,x,b,_,w,k,T=e._length,A=new Array(T);for(r=0;r<T;r++)y=m.a[r],x=m.b[r],b=m.c[r],n(y)&&n(x)&&n(b)?(1!==(_=g/((y=+y)+(x=+x)+(b=+b)))&&(y*=_,x*=_,b*=_),k=y,w=b-x,A[r]={x:w,y:k,a:y,b:x,c:b}):A[r]={x:!1,y:!1};return s(e,T),i(t,e),a(A,e),o(A,e),A}},{\\\"../scatter/arrays_to_calcdata\\\":1074,\\\"../scatter/calc\\\":1076,\\\"../scatter/calc_selection\\\":1077,\\\"../scatter/colorscale_calc\\\":1078,\\\"fast-isnumeric\\\":224}],1147:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../scatter/constants\\\"),a=t(\\\"../scatter/subtypes\\\"),o=t(\\\"../scatter/marker_defaults\\\"),s=t(\\\"../scatter/line_defaults\\\"),l=t(\\\"../scatter/line_shape_defaults\\\"),c=t(\\\"../scatter/text_defaults\\\"),u=t(\\\"../scatter/fillcolor_defaults\\\"),f=t(\\\"./attributes\\\");e.exports=function(t,e,r,h){function p(r,i){return n.coerce(t,e,f,r,i)}var d,g=p(\\\"a\\\"),v=p(\\\"b\\\"),m=p(\\\"c\\\");if(g?(d=g.length,v?(d=Math.min(d,v.length),m&&(d=Math.min(d,m.length))):d=m?Math.min(d,m.length):0):v&&m&&(d=Math.min(v.length,m.length)),d){e._length=d,p(\\\"sum\\\"),p(\\\"text\\\"),p(\\\"hovertext\\\"),\\\"fills\\\"!==e.hoveron&&p(\\\"hovertemplate\\\"),p(\\\"mode\\\",d<i.PTS_LINESONLY?\\\"lines+markers\\\":\\\"lines\\\"),a.hasLines(e)&&(s(t,e,r,h,p),l(t,e,p),p(\\\"connectgaps\\\")),a.hasMarkers(e)&&o(t,e,r,h,p,{gradient:!0}),a.hasText(e)&&c(t,e,h,p);var y=[];(a.hasMarkers(e)||a.hasText(e))&&(p(\\\"cliponaxis\\\"),p(\\\"marker.maxdisplayed\\\"),y.push(\\\"points\\\")),p(\\\"fill\\\"),\\\"none\\\"!==e.fill&&(u(t,e,r,p),a.hasLines(e)||l(t,e,p)),\\\"tonext\\\"!==e.fill&&\\\"toself\\\"!==e.fill||y.push(\\\"fills\\\"),p(\\\"hoveron\\\",y.join(\\\"+\\\")||\\\"points\\\"),n.coerceSelectionMarkerOpacity(e,p)}else e.visible=!1}},{\\\"../../lib\\\":703,\\\"../scatter/constants\\\":1079,\\\"../scatter/fillcolor_defaults\\\":1083,\\\"../scatter/line_defaults\\\":1087,\\\"../scatter/line_shape_defaults\\\":1089,\\\"../scatter/marker_defaults\\\":1093,\\\"../scatter/subtypes\\\":1098,\\\"../scatter/text_defaults\\\":1099,\\\"./attributes\\\":1145}],1148:[function(t,e,r){\\\"use strict\\\";e.exports=function(t,e,r,n,i){if(e.xa&&(t.xaxis=e.xa),e.ya&&(t.yaxis=e.ya),n[i]){var a=n[i];t.a=a.a,t.b=a.b,t.c=a.c}else t.a=e.a,t.b=e.b,t.c=e.c;return t}},{}],1149:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../scatter/hover\\\"),i=t(\\\"../../plots/cartesian/axes\\\");e.exports=function(t,e,r,a){var o=n(t,e,r,a);if(o&&!1!==o[0].index){var s=o[0];if(void 0===s.index){var l=1-s.y0/t.ya._length,c=t.xa._length,u=c*l/2,f=c-u;return s.x0=Math.max(Math.min(s.x0,f),u),s.x1=Math.max(Math.min(s.x1,f),u),o}var h=s.cd[s.index];s.a=h.a,s.b=h.b,s.c=h.c,s.xLabelVal=void 0,s.yLabelVal=void 0;var p=s.trace,d=s.subplot,g=h.hi||p.hoverinfo,v=[];if(!p.hovertemplate){var m=g.split(\\\"+\\\");-1!==m.indexOf(\\\"all\\\")&&(m=[\\\"a\\\",\\\"b\\\",\\\"c\\\"]),-1!==m.indexOf(\\\"a\\\")&&y(d.aaxis,h.a),-1!==m.indexOf(\\\"b\\\")&&y(d.baxis,h.b),-1!==m.indexOf(\\\"c\\\")&&y(d.caxis,h.c)}return s.extraText=v.join(\\\"<br>\\\"),s.hovertemplate=p.hovertemplate,o}function y(t,e){v.push(t._hovertitle+\\\": \\\"+i.tickText(t,e,\\\"hover\\\").text)}}},{\\\"../../plots/cartesian/axes\\\":751,\\\"../scatter/hover\\\":1085}],1150:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),colorbar:t(\\\"../scatter/marker_colorbar\\\"),calc:t(\\\"./calc\\\"),plot:t(\\\"./plot\\\"),style:t(\\\"../scatter/style\\\").style,styleOnSelect:t(\\\"../scatter/style\\\").styleOnSelect,hoverPoints:t(\\\"./hover\\\"),selectPoints:t(\\\"../scatter/select\\\"),eventData:t(\\\"./event_data\\\"),moduleType:\\\"trace\\\",name:\\\"scatterternary\\\",basePlotModule:t(\\\"../../plots/ternary\\\"),categories:[\\\"ternary\\\",\\\"symbols\\\",\\\"showLegend\\\",\\\"scatter-like\\\"],meta:{}}},{\\\"../../plots/ternary\\\":827,\\\"../scatter/marker_colorbar\\\":1092,\\\"../scatter/select\\\":1095,\\\"../scatter/style\\\":1097,\\\"./attributes\\\":1145,\\\"./calc\\\":1146,\\\"./defaults\\\":1147,\\\"./event_data\\\":1148,\\\"./hover\\\":1149,\\\"./plot\\\":1151}],1151:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../scatter/plot\\\");e.exports=function(t,e,r){var i=e.plotContainer;i.select(\\\".scatterlayer\\\").selectAll(\\\"*\\\").remove();var a={xaxis:e.xaxis,yaxis:e.yaxis,plot:i,layerClipId:e._hasClipOnAxisFalse?e.clipIdRelative:null},o=e.layers.frontplot.select(\\\"g.scatterlayer\\\");n(t,a,r,o)}},{\\\"../scatter/plot\\\":1094}],1152:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../scatter/attributes\\\"),i=t(\\\"../../components/colorscale/attributes\\\"),a=t(\\\"../../components/fx/hovertemplate_attributes\\\"),o=t(\\\"../scattergl/attributes\\\"),s=t(\\\"../../plots/cartesian/constants\\\").idRegex,l=t(\\\"../../plot_api/plot_template\\\").templatedArray,c=t(\\\"../../lib/extend\\\").extendFlat,u=n.marker,f=u.line,h=c(i(\\\"marker.line\\\",{editTypeOverride:\\\"calc\\\"}),{width:c({},f.width,{editType:\\\"calc\\\"}),editType:\\\"calc\\\"}),p=c(i(\\\"marker\\\"),{symbol:u.symbol,size:c({},u.size,{editType:\\\"markerSize\\\"}),sizeref:u.sizeref,sizemin:u.sizemin,sizemode:u.sizemode,opacity:u.opacity,colorbar:u.colorbar,line:h,editType:\\\"calc\\\"});function d(t){return{valType:\\\"info_array\\\",freeLength:!0,editType:\\\"calc\\\",items:{valType:\\\"subplotid\\\",regex:s[t],editType:\\\"plot\\\"}}}p.color.editType=p.cmin.editType=p.cmax.editType=\\\"style\\\",e.exports={dimensions:l(\\\"dimension\\\",{visible:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"},label:{valType:\\\"string\\\",editType:\\\"calc\\\"},values:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},axis:{type:{valType:\\\"enumerated\\\",values:[\\\"linear\\\",\\\"log\\\",\\\"date\\\",\\\"category\\\"],editType:\\\"calc+clearAxisTypes\\\"},matches:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"calc\\\"},editType:\\\"calc+clearAxisTypes\\\"},editType:\\\"calc+clearAxisTypes\\\"}),text:c({},o.text,{}),hovertext:c({},o.hovertext,{}),hovertemplate:a(),marker:p,xaxes:d(\\\"x\\\"),yaxes:d(\\\"y\\\"),diagonal:{visible:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"},editType:\\\"calc\\\"},showupperhalf:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"},showlowerhalf:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"},selected:{marker:o.selected.marker,editType:\\\"calc\\\"},unselected:{marker:o.unselected.marker,editType:\\\"calc\\\"},opacity:o.opacity}},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plot_api/plot_template\\\":741,\\\"../../plots/cartesian/constants\\\":757,\\\"../scatter/attributes\\\":1075,\\\"../scattergl/attributes\\\":1123}],1153:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"regl-line2d\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"../../lib/prepare_regl\\\"),o=t(\\\"../../plots/get_data\\\").getModuleCalcData,s=t(\\\"../../plots/cartesian\\\"),l=t(\\\"../../plots/cartesian/axis_ids\\\").getFromId,c=t(\\\"../../plots/cartesian/axes\\\").shouldShowZeroLine,u=\\\"splom\\\";function f(t,e,r){for(var n=r.matrixOptions.data.length,i=e._visibleDims,a=r.viewOpts.ranges=new Array(n),o=0;o<i.length;o++){var s=i[o],c=a[o]=new Array(4),u=l(t,e._diag[s][0]);u&&(c[0]=u.r2l(u.range[0]),c[2]=u.r2l(u.range[1]));var f=l(t,e._diag[s][1]);f&&(c[1]=f.r2l(f.range[0]),c[3]=f.r2l(f.range[1]))}r.selectBatch.length||r.unselectBatch.length?r.matrix.update({ranges:a},{ranges:a}):r.matrix.update({ranges:a})}function h(t){var e=t._fullLayout,r=e._glcanvas.data()[0].regl,i=e._splomGrid;i||(i=e._splomGrid=n(r)),i.update(function(t){var e,r=t._fullLayout,n=r._size,i=[0,0,r.width,r.height],a={};function o(t,e,r,n,o,s){var l=e[t+\\\"color\\\"],c=e[t+\\\"width\\\"],u=String(l+c);u in a?a[u].data.push(NaN,NaN,r,n,o,s):a[u]={data:[r,n,o,s],join:\\\"rect\\\",thickness:c,color:l,viewport:i,range:i,overlay:!1}}for(e in r._splomSubplots){var s,l,u=r._plots[e],f=u.xaxis,h=u.yaxis,p=f._vals,d=h._vals,g=n.b+h.domain[0]*n.h,v=-h._m,m=-v*h.r2l(h.range[0],h.calendar);if(f.showgrid)for(e=0;e<p.length;e++)s=f._offset+f.l2p(p[e].x),o(\\\"grid\\\",f,s,g,s,g+h._length);if(h.showgrid)for(e=0;e<d.length;e++)l=g+m+v*d[e].x,o(\\\"grid\\\",h,f._offset,l,f._offset+f._length,l);c(t,f,h)&&(s=f._offset+f.l2p(0),o(\\\"zeroline\\\",f,s,g,s,g+h._length)),c(t,h,f)&&(l=g+m+0,o(\\\"zeroline\\\",h,f._offset,l,f._offset+f._length,l))}var y=[];for(e in a)y.push(a[e]);return y}(t))}e.exports={name:u,attr:s.attr,attrRegex:s.attrRegex,layoutAttributes:s.layoutAttributes,supplyLayoutDefaults:s.supplyLayoutDefaults,drawFramework:s.drawFramework,plot:function(t){var e=t._fullLayout,r=i.getModule(u),n=o(t.calcdata,r)[0];a(t,[\\\"ANGLE_instanced_arrays\\\",\\\"OES_element_index_uint\\\"])&&(e._hasOnlyLargeSploms&&h(t),r.plot(t,{},n))},drag:function(t){var e=t.calcdata,r=t._fullLayout;r._hasOnlyLargeSploms&&h(t);for(var n=0;n<e.length;n++){var i=e[n][0].trace,a=r._splomScenes[i.uid];\\\"splom\\\"===i.type&&a&&a.matrix&&f(t,i,a)}},updateGrid:h,clean:function(t,e,r,n){var i,a={};if(n._splomScenes){for(i=0;i<t.length;i++){var o=t[i];\\\"splom\\\"===o.type&&(a[o.uid]=1)}for(i=0;i<r.length;i++){var l=r[i];if(!a[l.uid]){var c=n._splomScenes[l.uid];c&&c.destroy&&c.destroy(),n._splomScenes[l.uid]=null,delete n._splomScenes[l.uid]}}}0===Object.keys(n._splomScenes||{}).length&&delete n._splomScenes,n._splomGrid&&!e._hasOnlyLargeSploms&&n._hasOnlyLargeSploms&&(n._splomGrid.destroy(),n._splomGrid=null,delete n._splomGrid),s.clean(t,e,r,n)},updateFx:s.updateFx,toSVG:s.toSVG}},{\\\"../../lib/prepare_regl\\\":716,\\\"../../plots/cartesian\\\":762,\\\"../../plots/cartesian/axes\\\":751,\\\"../../plots/cartesian/axis_ids\\\":754,\\\"../../plots/get_data\\\":786,\\\"../../registry\\\":831,\\\"regl-line2d\\\":486}],1154:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plots/array_container_defaults\\\"),a=t(\\\"./attributes\\\"),o=t(\\\"../scatter/subtypes\\\"),s=t(\\\"../scatter/marker_defaults\\\"),l=t(\\\"../parcoords/merge_length\\\"),c=/-open/;function u(t,e){function r(r,i){return n.coerce(t,e,a.dimensions,r,i)}r(\\\"label\\\");var i=r(\\\"values\\\");i&&i.length?r(\\\"visible\\\"):e.visible=!1,r(\\\"axis.type\\\"),r(\\\"axis.matches\\\")}e.exports=function(t,e,r,f){function h(r,i){return n.coerce(t,e,a,r,i)}var p=i(t,e,{name:\\\"dimensions\\\",handleItemDefaults:u}),d=h(\\\"diagonal.visible\\\"),g=h(\\\"showupperhalf\\\"),v=h(\\\"showlowerhalf\\\");if(l(e,p,\\\"values\\\")&&(d||g||v)){h(\\\"text\\\"),h(\\\"hovertext\\\"),h(\\\"hovertemplate\\\"),s(t,e,r,f,h);var m=c.test(e.marker.symbol),y=o.isBubble(e);h(\\\"marker.line.width\\\",m||y?1:0),function(t,e,r,n){var i,a,o=e.dimensions,s=o.length,l=e.showupperhalf,c=e.showlowerhalf,u=e.diagonal.visible,f=new Array(s),h=new Array(s);for(i=0;i<s;i++){var p=i?i+1:\\\"\\\";f[i]=\\\"x\\\"+p,h[i]=\\\"y\\\"+p}var d=n(\\\"xaxes\\\",f),g=n(\\\"yaxes\\\",h),v=e._diag=new Array(s);e._xaxes={},e._yaxes={};var m=[],y=[];function x(t,n,i,a){if(t){var o=t.charAt(0),s=r._splomAxes[o];if(e[\\\"_\\\"+o+\\\"axes\\\"][t]=1,a.push(t),!(t in s)){var l=s[t]={};i&&(l.label=i.label||\\\"\\\",i.visible&&i.axis&&(i.axis.type&&(l.type=i.axis.type),i.axis.matches&&(l.matches=n)))}}}var b=!u&&!c,_=!u&&!l;for(e._axesDim={},i=0;i<s;i++){var w=o[i],k=0===i,T=i===s-1,A=k&&b||T&&_?void 0:d[i],M=k&&_||T&&b?void 0:g[i];x(A,M,w,m),x(M,A,w,y),v[i]=[A,M],e._axesDim[A]=i,e._axesDim[M]=i}for(i=0;i<m.length;i++)for(a=0;a<y.length;a++){var S=m[i]+y[a];i>a&&l?r._splomSubplots[S]=1:i<a&&c?r._splomSubplots[S]=1:i!==a||!u&&c&&l||(r._splomSubplots[S]=1)}(!c||!u&&l&&c)&&(r._splomGridDflt.xside=\\\"bottom\\\",r._splomGridDflt.yside=\\\"left\\\")}(0,e,f,h),n.coerceSelectionMarkerOpacity(e,h)}else e.visible=!1}},{\\\"../../lib\\\":703,\\\"../../plots/array_container_defaults\\\":747,\\\"../parcoords/merge_length\\\":1046,\\\"../scatter/marker_defaults\\\":1093,\\\"../scatter/subtypes\\\":1098,\\\"./attributes\\\":1152}],1155:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"regl-splom\\\"),i=t(\\\"../../registry\\\"),a=t(\\\"../../components/grid\\\"),o=t(\\\"../../lib\\\"),s=t(\\\"../../plots/cartesian/axis_ids\\\"),l=t(\\\"../scatter/subtypes\\\"),c=t(\\\"../scatter/calc\\\").calcMarkerSize,u=t(\\\"../scatter/calc\\\").calcAxisExpansion,f=t(\\\"../scatter/colorscale_calc\\\"),h=t(\\\"../scattergl/convert\\\").markerSelection,p=t(\\\"../scattergl/convert\\\").markerStyle,d=t(\\\"../scattergl\\\").calcHover,g=t(\\\"../../constants/numerical\\\").BADNUM,v=t(\\\"../scattergl/constants\\\").TOO_MANY_POINTS;function m(t,e){var r,i,a,l,c,u=t._fullLayout,f=u._size,h=e.trace,p=e.t,d=u._splomScenes[h.uid],g=d.matrixOptions,v=g.cdata,m=u._glcanvas.data()[0].regl,y=u.dragmode;if(0!==v.length){g.lower=h.showupperhalf,g.upper=h.showlowerhalf,g.diagonal=h.diagonal.visible;var x=h._visibleDims,b=v.length,_=d.viewOpts={};for(_.ranges=new Array(b),_.domains=new Array(b),c=0;c<x.length;c++){a=x[c];var w=_.ranges[c]=new Array(4),k=_.domains[c]=new Array(4);(r=s.getFromId(t,h._diag[a][0]))&&(w[0]=r._rl[0],w[2]=r._rl[1],k[0]=r.domain[0],k[2]=r.domain[1]),(i=s.getFromId(t,h._diag[a][1]))&&(w[1]=i._rl[0],w[3]=i._rl[1],k[1]=i.domain[0],k[3]=i.domain[1])}_.viewport=[f.l,f.b,f.w+f.l,f.h+f.b],!0===d.matrix&&(d.matrix=n(m));var T=u.clickmode.indexOf(\\\"select\\\")>-1,A=!0;if(\\\"lasso\\\"===y||\\\"select\\\"===y||!!h.selectedpoints||T){var M=h._length;if(h.selectedpoints){d.selectBatch=h.selectedpoints;var S=h.selectedpoints,E={};for(a=0;a<S.length;a++)E[S[a]]=!0;var C=[];for(a=0;a<M;a++)E[a]||C.push(a);d.unselectBatch=C}var L=p.xpx=new Array(b),z=p.ypx=new Array(b);for(c=0;c<x.length;c++){if(a=x[c],r=s.getFromId(t,h._diag[a][0]))for(L[c]=new Array(M),l=0;l<M;l++)L[c][l]=r.c2p(v[c][l]);if(i=s.getFromId(t,h._diag[a][1]))for(z[c]=new Array(M),l=0;l<M;l++)z[c][l]=i.c2p(v[c][l])}if(d.selectBatch.length||d.unselectBatch.length){var O=o.extendFlat({},g,d.unselectedOptions,_),I=o.extendFlat({},g,d.selectedOptions,_);d.matrix.update(O,I),A=!1}}else p.xpx=p.ypx=null;if(A){var D=o.extendFlat({},g,_);d.matrix.update(D,null)}}}function y(t,e){for(var r=e._id,n={x:0,y:1}[r.charAt(0)],i=t._visibleDims,a=0;a<i.length;a++){var o=i[a];if(t._diag[o][n]===r)return a}return!1}e.exports={moduleType:\\\"trace\\\",name:\\\"splom\\\",basePlotModule:t(\\\"./base_plot\\\"),categories:[\\\"gl\\\",\\\"regl\\\",\\\"cartesian\\\",\\\"symbols\\\",\\\"showLegend\\\",\\\"scatter-like\\\"],attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),colorbar:t(\\\"../scatter/marker_colorbar\\\"),calc:function(t,e){var r,n,i,a,l,d,m=e.dimensions,y=e._length,x={},b=x.cdata=[],_=x.data=[],w=e._visibleDims=[];function k(t,r){for(var n=t.makeCalcdata({v:r.values,vcalendar:e.calendar},\\\"v\\\"),i=0;i<n.length;i++)n[i]=n[i]===g?NaN:n[i];b.push(n),_.push(\\\"log\\\"===t.type?o.simpleMap(n,t.c2l):n)}for(r=0;r<m.length;r++)if((i=m[r]).visible){if(a=s.getFromId(t,e._diag[r][0]),l=s.getFromId(t,e._diag[r][1]),a&&l&&a.type!==l.type){o.log(\\\"Skipping splom dimension \\\"+r+\\\" with conflicting axis types\\\");continue}a?(k(a,i),l&&\\\"category\\\"===l.type&&(l._categories=a._categories.slice())):k(l,i),w.push(r)}for(f(t,e),o.extendFlat(x,p(e)),d=b.length*y>v?2*(x.sizeAvg||Math.max(x.size,3)):c(e,y),n=0;n<w.length;n++)i=m[r=w[n]],a=s.getFromId(t,e._diag[r][0])||{},l=s.getFromId(t,e._diag[r][1])||{},u(t,e,a,l,b[n],b[n],d);var T=function(t,e){var r=t._fullLayout,n=e.uid,i=r._splomScenes;i||(i=r._splomScenes={});var a={dirty:!0},s=i[e.uid];return s||((s=i[n]=o.extendFlat({},a,{matrix:!1,selectBatch:[],unselectBatch:[]})).draw=function(){s.matrix&&s.matrix.draw&&(s.selectBatch.length||s.unselectBatch.length?s.matrix.draw(s.unselectBatch,s.selectBatch):s.matrix.draw()),s.dirty=!1},s.destroy=function(){s.matrix&&s.matrix.destroy&&s.matrix.destroy(),s.matrixOptions=null,s.selectBatch=null,s.unselectBatch=null,s=null}),s.dirty||o.extendFlat(s,a),s}(t,e);return T.matrix||(T.matrix=!0),T.matrixOptions=x,T.selectedOptions=h(e,e.selected),T.unselectedOptions=h(e,e.unselected),[{x:!1,y:!1,t:{},trace:e}]},plot:function(t,e,r){if(r.length)for(var n=0;n<r.length;n++)m(t,r[n][0])},hoverPoints:function(t,e,r){var n=t.cd[0].trace,i=t.scene.matrixOptions.cdata,a=t.xa,o=t.ya,s=a.c2p(e),l=o.c2p(r),c=t.distance,u=y(n,a),f=y(n,o);if(!1===u||!1===f)return[t];for(var h,p,g=i[u],v=i[f],m=c,x=0;x<g.length;x++){var b=g[x],_=v[x],w=a.c2p(b)-s,k=o.c2p(_)-l,T=Math.sqrt(w*w+k*k);T<m&&(m=p=T,h=x)}return t.index=h,t.distance=m,t.dxy=p,void 0===h?[t]:(d(t,g,v,n),[t])},selectPoints:function(t,e){var r=t.cd,n=r[0].trace,i=r[0].t,a=t.scene,s=a.matrixOptions.cdata,c=t.xaxis,u=t.yaxis,f=[];if(!a)return f;var h=!l.hasMarkers(n)&&!l.hasText(n);if(!0!==n.visible||h)return f;var p=y(n,c),d=y(n,u);if(!1===p||!1===d)return f;var g=i.xpx[p],v=i.ypx[d],m=s[p],x=s[d],b=[],_=[];if(!1!==e&&!e.degenerate)for(var w=0;w<m.length;w++)e.contains([g[w],v[w]],null,w,t)?(b.push(w),f.push({pointNumber:w,x:m[w],y:x[w]})):_.push(w);var k=a.matrixOptions;return b.length||_.length?a.selectBatch.length||a.unselectBatch.length||a.matrix.update(a.unselectedOptions,o.extendFlat({},k,a.selectedOptions,a.viewOpts)):a.matrix.update(k,null),a.selectBatch=b,a.unselectBatch=_,f},editStyle:function(t,e){var r=e.trace,n=t._fullLayout._splomScenes[r.uid];if(n){f(t,r),o.extendFlat(n.matrixOptions,p(r));var i=o.extendFlat({},n.matrixOptions,n.viewOpts);n.matrix.update(i,null)}},meta:{}},i.register(a)},{\\\"../../components/grid\\\":623,\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"../../plots/cartesian/axis_ids\\\":754,\\\"../../registry\\\":831,\\\"../scatter/calc\\\":1076,\\\"../scatter/colorscale_calc\\\":1078,\\\"../scatter/marker_colorbar\\\":1092,\\\"../scatter/subtypes\\\":1098,\\\"../scattergl\\\":1127,\\\"../scattergl/constants\\\":1124,\\\"../scattergl/convert\\\":1125,\\\"./attributes\\\":1152,\\\"./base_plot\\\":1153,\\\"./defaults\\\":1154,\\\"regl-splom\\\":488}],1156:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale/attributes\\\"),i=t(\\\"../../components/fx/hovertemplate_attributes\\\"),a=t(\\\"../mesh3d/attributes\\\"),o=t(\\\"../../plots/attributes\\\"),s=t(\\\"../../lib/extend\\\").extendFlat,l={x:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},y:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},z:{valType:\\\"data_array\\\",editType:\\\"calc+clearAxisTypes\\\"},u:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},v:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},w:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},starts:{x:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},y:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},z:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},editType:\\\"calc\\\"},maxdisplayed:{valType:\\\"integer\\\",min:0,dflt:1e3,editType:\\\"calc\\\"},sizeref:{valType:\\\"number\\\",editType:\\\"calc\\\",min:0,dflt:1},text:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"calc\\\"},hovertext:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"calc\\\"},hovertemplate:i({editType:\\\"calc\\\"},{keys:[\\\"tubex\\\",\\\"tubey\\\",\\\"tubez\\\",\\\"tubeu\\\",\\\"tubev\\\",\\\"tubew\\\",\\\"norm\\\",\\\"divergence\\\"]})};s(l,n(\\\"\\\",{colorAttr:\\\"u/v/w norm\\\",showScaleDflt:!0,editTypeOverride:\\\"calc\\\"}));[\\\"opacity\\\",\\\"lightposition\\\",\\\"lighting\\\"].forEach(function(t){l[t]=a[t]}),l.hoverinfo=s({},o.hoverinfo,{editType:\\\"calc\\\",flags:[\\\"x\\\",\\\"y\\\",\\\"z\\\",\\\"u\\\",\\\"v\\\",\\\"w\\\",\\\"norm\\\",\\\"divergence\\\",\\\"text\\\",\\\"name\\\"],dflt:\\\"x+y+z+norm+text+name\\\"}),l.transforms=void 0,e.exports=l},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plots/attributes\\\":748,\\\"../mesh3d/attributes\\\":1017}],1157:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale/calc\\\");e.exports=function(t,e){var r,i,a,o,s=e.u,l=e.v,c=e.w,u=e.x,f=e.y,h=e.z,p=Math.min(u.length,f.length,h.length,s.length,l.length,c.length),d=0;e.starts&&(i=e.starts.x||[],a=e.starts.y||[],o=e.starts.z||[],d=Math.min(i.length,a.length,o.length));var g=0,v=1/0;for(r=0;r<p;r++){var m=s[r],y=l[r],x=c[r],b=Math.sqrt(m*m+y*y+x*x);g=Math.max(g,b),v=Math.min(v,b)}n(t,e,{vals:[v,g],containerStr:\\\"\\\",cLetter:\\\"c\\\"});var _=-1/0,w=1/0,k=-1/0,T=1/0,A=-1/0,M=1/0;for(r=0;r<p;r++){var S=u[r];_=Math.max(_,S),w=Math.min(w,S);var E=f[r];k=Math.max(k,E),T=Math.min(T,E);var C=h[r];A=Math.max(A,C),M=Math.min(M,C)}for(r=0;r<d;r++){var L=i[r];_=Math.max(_,L),w=Math.min(w,L);var z=a[r];k=Math.max(k,z),T=Math.min(T,z);var O=o[r];A=Math.max(A,O),M=Math.min(M,O)}e._len=p,e._slen=d,e._normMax=g,e._xbnds=[w,_],e._ybnds=[T,k],e._zbnds=[M,A]}},{\\\"../../components/colorscale/calc\\\":588}],1158:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-streamtube3d\\\"),i=n.createTubeMesh,a=t(\\\"../../lib\\\"),o=t(\\\"../../lib/gl_format_color\\\").parseColorScale,s=t(\\\"../../components/colorscale\\\").extractOpts,l=t(\\\"../../plots/gl3d/zip3\\\"),c={xaxis:0,yaxis:1,zaxis:2};function u(t,e){this.scene=t,this.uid=e,this.mesh=null,this.data=null}var f=u.prototype;function h(t){return a.distinctVals(t).vals}function p(t){var e=t.length;return e>2?t.slice(1,e-1):2===e?[(t[0]+t[1])/2]:t}function d(t){var e=t.length;return 1===e?[.5,.5]:[t[1]-t[0],t[e-1]-t[e-2]]}function g(t,e){var r=t.fullSceneLayout,i=t.dataScale,u=e._len,f={};function g(t,e){var n=r[e],o=i[c[e]];return a.simpleMap(t,function(t){return n.d2l(t)*o})}f.vectors=l(g(e.u,\\\"xaxis\\\"),g(e.v,\\\"yaxis\\\"),g(e.w,\\\"zaxis\\\"),u);var v=h(e.x.slice(0,u)),m=h(e.y.slice(0,u)),y=h(e.z.slice(0,u));if(v.length*m.length*y.length>u)return{positions:[],cells:[]};var x=g(v,\\\"xaxis\\\"),b=g(m,\\\"yaxis\\\"),_=g(y,\\\"zaxis\\\");if(f.meshgrid=[x,b,_],e.starts){var w=e._slen;f.startingPositions=l(g(e.starts.x.slice(0,w),\\\"xaxis\\\"),g(e.starts.y.slice(0,w),\\\"yaxis\\\"),g(e.starts.z.slice(0,w),\\\"zaxis\\\"))}else{for(var k=b[0],T=p(x),A=p(_),M=new Array(T.length*A.length),S=0,E=0;E<T.length;E++)for(var C=0;C<A.length;C++)M[S++]=[T[E],k,A[C]];f.startingPositions=M}f.colormap=o(e),f.tubeSize=e.sizeref,f.maxLength=e.maxdisplayed;var L=g(e._xbnds,\\\"xaxis\\\"),z=g(e._ybnds,\\\"yaxis\\\"),O=g(e._zbnds,\\\"zaxis\\\"),I=d(x),D=d(b),P=d(_),R=[[L[0]-I[0],z[0]-D[0],O[0]-P[0]],[L[1]+I[1],z[1]+D[1],O[1]+P[1]]],F=n(f,R),B=s(e);F.vertexIntensityBounds=[B.min/e._normMax,B.max/e._normMax];var N=e.lightposition;return F.lightPosition=[N.x,N.y,N.z],F.ambient=e.lighting.ambient,F.diffuse=e.lighting.diffuse,F.specular=e.lighting.specular,F.roughness=e.lighting.roughness,F.fresnel=e.lighting.fresnel,F.opacity=e.opacity,e._pad=F.tubeScale*e.sizeref*2,F}f.handlePick=function(t){var e=this.scene.fullSceneLayout,r=this.scene.dataScale;function n(t,n){var i=e[n],a=r[c[n]];return i.l2c(t)/a}if(t.object===this.mesh){var i=t.data.position,a=t.data.velocity;return t.traceCoordinate=[n(i[0],\\\"xaxis\\\"),n(i[1],\\\"yaxis\\\"),n(i[2],\\\"zaxis\\\"),n(a[0],\\\"xaxis\\\"),n(a[1],\\\"yaxis\\\"),n(a[2],\\\"zaxis\\\"),t.data.intensity*this.data._normMax,t.data.divergence],t.textLabel=this.data.hovertext||this.data.text,!0}},f.update=function(t){this.data=t;var e=g(this.scene,t);this.mesh.update(e)},f.dispose=function(){this.scene.glplot.remove(this.mesh),this.mesh.dispose()},e.exports=function(t,e){var r=t.glplot.gl,n=g(t,e),a=i(r,n),o=new u(t,e.uid);return o.mesh=a,o.data=e,a._trace=o,t.glplot.add(a),o}},{\\\"../../components/colorscale\\\":592,\\\"../../lib\\\":703,\\\"../../lib/gl_format_color\\\":700,\\\"../../plots/gl3d/zip3\\\":802,\\\"gl-streamtube3d\\\":312}],1159:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../components/colorscale/defaults\\\"),a=t(\\\"./attributes\\\");e.exports=function(t,e,r,o){function s(r,i){return n.coerce(t,e,a,r,i)}var l=s(\\\"u\\\"),c=s(\\\"v\\\"),u=s(\\\"w\\\"),f=s(\\\"x\\\"),h=s(\\\"y\\\"),p=s(\\\"z\\\");l&&l.length&&c&&c.length&&u&&u.length&&f&&f.length&&h&&h.length&&p&&p.length?(s(\\\"starts.x\\\"),s(\\\"starts.y\\\"),s(\\\"starts.z\\\"),s(\\\"maxdisplayed\\\"),s(\\\"sizeref\\\"),s(\\\"lighting.ambient\\\"),s(\\\"lighting.diffuse\\\"),s(\\\"lighting.specular\\\"),s(\\\"lighting.roughness\\\"),s(\\\"lighting.fresnel\\\"),s(\\\"lightposition.x\\\"),s(\\\"lightposition.y\\\"),s(\\\"lightposition.z\\\"),i(t,e,o,s,{prefix:\\\"\\\",cLetter:\\\"c\\\"}),s(\\\"text\\\"),s(\\\"hovertext\\\"),s(\\\"hovertemplate\\\"),e._length=null):e.visible=!1}},{\\\"../../components/colorscale/defaults\\\":590,\\\"../../lib\\\":703,\\\"./attributes\\\":1156}],1160:[function(t,e,r){\\\"use strict\\\";e.exports={moduleType:\\\"trace\\\",name:\\\"streamtube\\\",basePlotModule:t(\\\"../../plots/gl3d\\\"),categories:[\\\"gl3d\\\"],attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),colorbar:{min:\\\"cmin\\\",max:\\\"cmax\\\"},calc:t(\\\"./calc\\\"),plot:t(\\\"./convert\\\"),eventData:function(t,e){return t.tubex=t.x,t.tubey=t.y,t.tubez=t.z,t.tubeu=e.traceCoordinate[3],t.tubev=e.traceCoordinate[4],t.tubew=e.traceCoordinate[5],t.norm=e.traceCoordinate[6],t.divergence=e.traceCoordinate[7],delete t.x,delete t.y,delete t.z,t},meta:{}}},{\\\"../../plots/gl3d\\\":791,\\\"./attributes\\\":1156,\\\"./calc\\\":1157,\\\"./convert\\\":1158,\\\"./defaults\\\":1159}],1161:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/attributes\\\"),i=t(\\\"../../components/fx/hovertemplate_attributes\\\"),a=t(\\\"../../plots/domain\\\").attributes,o=t(\\\"../pie/attributes\\\"),s=t(\\\"../../lib/extend\\\").extendFlat;e.exports={labels:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},parents:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},values:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},branchvalues:{valType:\\\"enumerated\\\",values:[\\\"remainder\\\",\\\"total\\\"],dflt:\\\"remainder\\\",editType:\\\"calc\\\"},level:{valType:\\\"any\\\",editType:\\\"plot\\\",anim:!0},maxdepth:{valType:\\\"integer\\\",editType:\\\"plot\\\",dflt:-1},marker:{colors:{valType:\\\"data_array\\\",editType:\\\"calc\\\"},line:{color:s({},o.marker.line.color,{dflt:null}),width:s({},o.marker.line.width,{dflt:1}),editType:\\\"calc\\\"},editType:\\\"calc\\\"},leaf:{opacity:{valType:\\\"number\\\",editType:\\\"style\\\",min:0,max:1,dflt:.7},editType:\\\"plot\\\"},text:o.text,textinfo:s({},o.textinfo,{editType:\\\"plot\\\",flags:[\\\"label\\\",\\\"text\\\",\\\"value\\\"]}),textfont:o.textfont,hovertext:o.hovertext,hoverinfo:s({},n.hoverinfo,{flags:[\\\"label\\\",\\\"text\\\",\\\"value\\\",\\\"name\\\"]}),hovertemplate:i(),insidetextfont:o.insidetextfont,outsidetextfont:o.outsidetextfont,domain:a({name:\\\"sunburst\\\",trace:!0,editType:\\\"calc\\\"})}},{\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plots/attributes\\\":748,\\\"../../plots/domain\\\":776,\\\"../pie/attributes\\\":1049}],1162:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../plots/get_data\\\").getModuleCalcData,a=r.name=\\\"sunburst\\\";r.plot=function(t,e,r,o){var s=n.getModule(a),l=i(t.calcdata,s)[0];s.plot(t,l,r,o)},r.clean=function(t,e,r,n){var i=n._has&&n._has(a),o=e._has&&e._has(a);i&&!o&&n._sunburstlayer.selectAll(\\\"g.trace\\\").remove()}},{\\\"../../plots/get_data\\\":786,\\\"../../registry\\\":831}],1163:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3-hierarchy\\\"),i=t(\\\"fast-isnumeric\\\"),a=t(\\\"../../lib\\\"),o=t(\\\"../pie/calc\\\").makePullColorFn,s=t(\\\"../pie/calc\\\").generateExtendedColors,l=a.isArrayOrTypedArray,c={};r.calc=function(t,e){var r,s,c,u,f,h,p=t._fullLayout,d=e.ids,g=l(d),v=e.labels,m=e.parents,y=e.values,x=l(y),b=[],_={},w={},k=function(t){return t||\\\"number\\\"==typeof t},T=function(t){return!x||i(y[t])&&y[t]>=0};g?(r=Math.min(d.length,m.length),s=function(t){return k(d[t])&&T(t)},c=function(t){return String(d[t])}):(r=Math.min(v.length,m.length),s=function(t){return k(v[t])&&T(t)},c=function(t){return String(v[t])}),x&&(r=Math.min(r,y.length));for(var A=0;A<r;A++)if(s(A)){var M=c(A),S=k(m[A])?String(m[A]):\\\"\\\",E={i:A,id:M,pid:S,label:k(v[A])?String(v[A]):\\\"\\\"};x&&(E.v=+y[A]),b.push(E),f=M,_[u=S]?_[u].push(f):_[u]=[f],w[f]=1}if(_[\\\"\\\"]){if(_[\\\"\\\"].length>1){for(var C=a.randstr(),L=0;L<b.length;L++)\\\"\\\"===b[L].pid&&(b[L].pid=C);b.unshift({hasMultipleRoots:!0,id:C,pid:\\\"\\\"})}}else{var z,O=[];for(z in _)w[z]||O.push(z);if(1!==O.length)return a.warn(\\\"Multiple implied roots, cannot build sunburst hierarchy.\\\");z=O[0],b.unshift({id:z,pid:\\\"\\\",label:z})}try{h=n.stratify().id(function(t){return t.id}).parentId(function(t){return t.pid})(b)}catch(t){return a.warn(\\\"Failed to build sunburst hierarchy. Error: \\\"+t.message)}var I=n.hierarchy(h),D=!1;if(x)switch(e.branchvalues){case\\\"remainder\\\":I.sum(function(t){return t.data.v});break;case\\\"total\\\":I.each(function(t){var e=t.data.data.v;if(t.children&&e<t.children.reduce(function(t,e){return t+e.data.data.v},0))return D=!0,a.warn([\\\"Total value for node\\\",t.data.data.id,\\\"is smaller than the sum of its children.\\\"].join(\\\" \\\"));t.value=e})}else I.count();if(!D){I.sort(function(t,e){return e.value-t.value});var P=e.marker.colors||[],R=o(p._sunburstcolormap);return I.each(function(t){var e=t.data.data,r=e.id;e.color=R(P[e.i],r)}),b[0].hierarchy=I,b}},r.crossTraceCalc=function(t){var e=t._fullLayout,r=t.calcdata,n=e.sunburstcolorway,i=e._sunburstcolormap;e.extendsunburstcolors&&(n=s(n,c));var a=0;function o(t){var e=t.data.data,r=e.id;!1===e.color&&(i[r]?e.color=i[r]:t.parent?t.parent.parent?e.color=t.parent.data.data.color:(i[r]=e.color=n[a%n.length],a++):e.color=\\\"rgba(0,0,0,0)\\\")}for(var l=0;l<r.length;l++){var u=r[l][0];\\\"sunburst\\\"===u.trace.type&&u.hierarchy&&u.hierarchy.each(o)}}},{\\\"../../lib\\\":703,\\\"../pie/calc\\\":1051,\\\"d3-hierarchy\\\":150,\\\"fast-isnumeric\\\":224}],1164:[function(t,e,r){\\\"use strict\\\";e.exports={CLICK_TRANSITION_TIME:750,CLICK_TRANSITION_EASING:\\\"linear\\\"}},{}],1165:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./attributes\\\"),a=t(\\\"../../plots/domain\\\").defaults,o=t(\\\"../bar/defaults\\\").handleText;e.exports=function(t,e,r,s){function l(r,a){return n.coerce(t,e,i,r,a)}var c=l(\\\"labels\\\"),u=l(\\\"parents\\\");if(c&&c.length&&u&&u.length){var f=l(\\\"values\\\");f&&f.length&&l(\\\"branchvalues\\\"),l(\\\"level\\\"),l(\\\"maxdepth\\\"),l(\\\"marker.line.width\\\")&&l(\\\"marker.line.color\\\",s.paper_bgcolor),l(\\\"marker.colors\\\"),l(\\\"leaf.opacity\\\");var h=l(\\\"text\\\");l(\\\"textinfo\\\",Array.isArray(h)?\\\"text+label\\\":\\\"label\\\"),l(\\\"hovertext\\\"),l(\\\"hovertemplate\\\");o(t,e,s,l,\\\"auto\\\",{moduleHasSelected:!1,moduleHasUnselected:!1,moduleHasConstrain:!1,moduleHasCliponaxis:!1,moduleHasTextangle:!1,moduleHasInsideanchor:!1}),a(e,s,l),e._length=null}else e.visible=!1}},{\\\"../../lib\\\":703,\\\"../../plots/domain\\\":776,\\\"../bar/defaults\\\":845,\\\"./attributes\\\":1161}],1166:[function(t,e,r){\\\"use strict\\\";e.exports={moduleType:\\\"trace\\\",name:\\\"sunburst\\\",basePlotModule:t(\\\"./base_plot\\\"),categories:[],animatable:!0,attributes:t(\\\"./attributes\\\"),layoutAttributes:t(\\\"./layout_attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),supplyLayoutDefaults:t(\\\"./layout_defaults\\\"),calc:t(\\\"./calc\\\").calc,crossTraceCalc:t(\\\"./calc\\\").crossTraceCalc,plot:t(\\\"./plot\\\"),style:t(\\\"./style\\\").style,meta:{}}},{\\\"./attributes\\\":1161,\\\"./base_plot\\\":1162,\\\"./calc\\\":1163,\\\"./defaults\\\":1165,\\\"./layout_attributes\\\":1167,\\\"./layout_defaults\\\":1168,\\\"./plot\\\":1169,\\\"./style\\\":1170}],1167:[function(t,e,r){\\\"use strict\\\";e.exports={sunburstcolorway:{valType:\\\"colorlist\\\",editType:\\\"calc\\\"},extendsunburstcolors:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"}}},{}],1168:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./layout_attributes\\\");e.exports=function(t,e){function r(r,a){return n.coerce(t,e,i,r,a)}r(\\\"sunburstcolorway\\\",e.colorway),r(\\\"extendsunburstcolors\\\")}},{\\\"../../lib\\\":703,\\\"./layout_attributes\\\":1167}],1169:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"d3-hierarchy\\\"),a=t(\\\"../../registry\\\"),o=t(\\\"../../components/fx\\\"),s=t(\\\"../../components/color\\\"),l=t(\\\"../../components/drawing\\\"),c=t(\\\"../../lib\\\"),u=t(\\\"../../lib/events\\\"),f=t(\\\"../../lib/svg_text_utils\\\"),h=t(\\\"../../lib/setcursor\\\"),p=t(\\\"../../components/fx/helpers\\\").appendArrayPointValue,d=t(\\\"../pie/plot\\\").transformInsideText,g=t(\\\"../pie/helpers\\\").formatPieValue,v=t(\\\"./style\\\").styleOne,m=t(\\\"./constants\\\");function y(t,e,r,a){var o=t._fullLayout,u=a&&a.duration>0,h=n.select(r).selectAll(\\\"g.slice\\\"),p=e[0],m=p.trace,y=x(p.hierarchy,m.level),w=m.maxdepth>=0?m.maxdepth:1/0,M=o._size,S=m.domain,E=M.w*(S.x[1]-S.x[0]),C=M.h*(S.y[1]-S.y[0]),L=.5*Math.min(E,C),z=p.cx=M.l+M.w*(S.x[1]+S.x[0])/2,O=p.cy=M.t+M.h*(1-S.y[0])-C/2;if(!y)return h.remove();var I=null,D={};u&&h.each(function(t){D[k(t)]={rpx0:t.rpx0,rpx1:t.rpx1,x0:t.x0,x1:t.x1,transform:t.transform},!I&&_(t)&&(I=t)});var P=function(t){return i.partition().size([2*Math.PI,t.height+1])(t)}(y).descendants(),R=y.height+1,F=0,B=w;p.hasMultipleRoots&&b(y)&&(P=P.slice(1),R-=1,F=1,B+=1),P=P.filter(function(t){return t.y1<=B});var N=Math.min(R,w),j=function(t){return(t-F)/N*L},V=function(t,e){return[t*Math.cos(e),-t*Math.sin(e)]},U=function(t){return c.pathAnnulus(t.rpx0,t.rpx1,t.x0,t.x1,z,O)},H=function(t){return z+t.pxmid[0]*t.transform.rCenter+(t.transform.x||0)},q=function(t){return O+t.pxmid[1]*t.transform.rCenter+(t.transform.y||0)};(h=h.data(P,function(t){return k(t)})).enter().append(\\\"g\\\").classed(\\\"slice\\\",!0),u?h.exit().transition().each(function(){var t=n.select(this);t.select(\\\"path.surface\\\").transition().attrTween(\\\"d\\\",function(t){var e=function(t){var e,r=k(t),i=D[r],a=D[k(y)];if(a){var o=t.x1>a.x1?2*Math.PI:0;e=t.rpx1<a.rpx1?{rpx0:0,rpx1:0}:{x0:o,x1:o}}else{var s,l=k(t.parent);h.each(function(t){if(k(t)===l)return s=t});var c,u=s.children;u.forEach(function(t,e){if(k(t)===r)return c=e});var f=u.length,p=n.interpolate(s.x0,s.x1);e={rpx0:L,rpx1:L,x0:p(c/f),x1:p((c+1)/f)}}return n.interpolate(i,e)}(t);return function(t){return U(e(t))}}),t.select(\\\"g.slicetext\\\").attr(\\\"opacity\\\",0)}).remove():h.exit().remove(),h.order();var G=null;if(u&&I){var Y=k(I);h.each(function(t){null===G&&k(t)===Y&&(G=t.x1)})}var W=h;function X(t){var e=t.parent,r=D[k(e)],i={};if(r){var a=e.children,o=a.indexOf(t),s=a.length,l=n.interpolate(r.x0,r.x1);i.x0=l(o/s),i.x1=l(o/s)}else i.x0=i.x1=0;return i}u&&(W=W.transition().each(\\\"end\\\",function(){T(n.select(this),t,{isTransitioning:!1})})),W.each(function(r){var i=n.select(this),a=c.ensureSingle(i,\\\"path\\\",\\\"surface\\\",function(t){t.style(\\\"pointer-events\\\",\\\"all\\\")});r.rpx0=j(r.y0),r.rpx1=j(r.y1),r.xmid=(r.x0+r.x1)/2,r.pxmid=V(r.rpx1,r.xmid),r.midangle=-(r.xmid-Math.PI/2),r.halfangle=.5*Math.min(c.angleDelta(r.x0,r.x1)||Math.PI,Math.PI),r.ring=1-r.rpx0/r.rpx1,r.rInscribed=function(t){return 0===t.rpx0&&c.isFullCircle([t.x0,t.x1])?1:Math.max(0,Math.min(1/(1+1/Math.sin(t.halfangle)),t.ring/2))}(r),u?a.transition().attrTween(\\\"d\\\",function(t){var e=function(t){var e,r=D[k(t)],i={x0:t.x0,x1:t.x1,rpx0:t.rpx0,rpx1:t.rpx1};if(r)e=r;else if(I)if(t.parent)if(G){var a=t.x1>G?2*Math.PI:0;e={x0:a,x1:a}}else e={rpx0:L,rpx1:L},c.extendFlat(e,X(t));else e={rpx0:0,rpx1:0};else e={x0:0,x1:0};return n.interpolate(e,i)}(t);return function(t){return U(e(t))}}):a.attr(\\\"d\\\",U),i.call(A,t,e).call(T,t,{isTransitioning:t._transitioning}),a.call(v,r,m);var h=c.ensureSingle(i,\\\"g\\\",\\\"slicetext\\\"),y=c.ensureSingle(h,\\\"text\\\",\\\"\\\",function(t){t.attr(\\\"data-notex\\\",1)});y.text(function(t,e,r){var n=e.textinfo;if(!n||\\\"none\\\"===n)return\\\"\\\";var i=t.data.data,a=r.separators,o=n.split(\\\"+\\\"),s=function(t){return-1!==o.indexOf(t)},l=[];s(\\\"label\\\")&&i.label&&l.push(i.label);i.hasOwnProperty(\\\"v\\\")&&s(\\\"value\\\")&&l.push(g(i.v,a));if(s(\\\"text\\\")){var u=c.castOption(e,i.i,\\\"text\\\");c.isValidTextValue(u)&&l.push(u)}return l.join(\\\"<br>\\\")}(r,m,o)).classed(\\\"slicetext\\\",!0).attr(\\\"text-anchor\\\",\\\"middle\\\").call(l.font,b(r)?function(t,e,r){var n=e.data.data.i,i=c.castOption(t,n,\\\"outsidetextfont.color\\\")||c.castOption(t,n,\\\"textfont.color\\\")||r.color,a=c.castOption(t,n,\\\"outsidetextfont.family\\\")||c.castOption(t,n,\\\"textfont.family\\\")||r.family,o=c.castOption(t,n,\\\"outsidetextfont.size\\\")||c.castOption(t,n,\\\"textfont.size\\\")||r.size;return{color:i,family:a,size:o}}(m,r,o.font):function(t,e,r){var n=e.data.data,i=n.i,a=c.castOption(t,i,\\\"insidetextfont.color\\\");!a&&t._input.textfont&&(a=c.castOption(t._input,i,\\\"textfont.color\\\"));var o=c.castOption(t,i,\\\"insidetextfont.family\\\")||c.castOption(t,i,\\\"textfont.family\\\")||r.family,l=c.castOption(t,i,\\\"insidetextfont.size\\\")||c.castOption(t,i,\\\"textfont.size\\\")||r.size;return{color:a||s.contrast(n.color),family:o,size:l}}(m,r,o.font)).call(f.convertToTspans,t);var x=l.bBox(y.node());r.transform=d(x,r,p),r.translateX=H(r),r.translateY=q(r);var _=function(t,e){return\\\"translate(\\\"+t.translateX+\\\",\\\"+t.translateY+\\\")\\\"+(t.transform.scale<1?\\\"scale(\\\"+t.transform.scale+\\\")\\\":\\\"\\\")+(t.transform.rotate?\\\"rotate(\\\"+t.transform.rotate+\\\")\\\":\\\"\\\")+\\\"translate(\\\"+-(e.left+e.right)/2+\\\",\\\"+-(e.top+e.bottom)/2+\\\")\\\"};u?y.transition().attrTween(\\\"transform\\\",function(t){var e=function(t){var e,r=D[k(t)],i=t.transform;if(r)e=r;else if(e={rpx1:t.rpx1,transform:{scale:0,rotate:i.rotate,rCenter:i.rCenter,x:i.x,y:i.y}},I)if(t.parent)if(G){var a=t.x1>G?2*Math.PI:0;e.x0=e.x1=a}else c.extendFlat(e,X(t));else e.x0=e.x1=0;else e.x0=e.x1=0;var o=n.interpolate(e.rpx1,t.rpx1),s=n.interpolate(e.x0,t.x0),l=n.interpolate(e.x1,t.x1),u=n.interpolate(e.transform.scale,i.scale),f=n.interpolate(e.transform.rotate,i.rotate),h=0===i.rCenter?3:0===e.transform.rCenter?1/3:1,p=n.interpolate(e.transform.rCenter,i.rCenter);return function(t){var e=o(t),r=s(t),n=l(t),a=function(t){return p(Math.pow(t,h))}(t),c={pxmid:V(e,(r+n)/2),transform:{rCenter:a,x:i.x,y:i.y}},d={rpx1:o(t),translateX:H(c),translateY:q(c),transform:{scale:u(t),rotate:f(t),rCenter:a}};return d}}(t);return function(t){return _(e(t),x)}}):y.attr(\\\"transform\\\",_(r,x))})}function x(t,e){var r;return e&&t.eachAfter(function(t){if(k(t)===e)return r=t.copy()}),r||t}function b(t){return\\\"\\\"===t.data.data.pid}function _(t){return!t.parent}function w(t){return!t.children}function k(t){return t.data.data.id}function T(t,e,r){var n=t.datum(),i=(r||{}).isTransitioning;h(t,i||w(n)||b(n)?null:\\\"pointer\\\")}function A(t,e,r){var i=r[0],s=i.trace;\\\"_hasHoverLabel\\\"in s||(s._hasHoverLabel=!1),\\\"_hasHoverEvent\\\"in s||(s._hasHoverEvent=!1),t.on(\\\"mouseover\\\",function(t){var r=e._fullLayout;if(!e._dragging&&!1!==r.hovermode){var a=e._fullData[s.index],l=t.data.data,u=l.i,f=function(t){return c.castOption(a,u,t)},h=f(\\\"hovertemplate\\\"),p=o.castHoverinfo(a,r,u),d=r.separators;if(h||p&&\\\"none\\\"!==p&&\\\"skip\\\"!==p){var v=t.rInscribed,m=i.cx+t.pxmid[0]*(1-v),y=i.cy+t.pxmid[1]*(1-v),x={},b=[],_=[],w=function(t){return-1!==b.indexOf(t)};if(p&&(b=\\\"all\\\"===p?a._module.attributes.hoverinfo.flags:p.split(\\\"+\\\")),x.label=l.label,w(\\\"label\\\")&&x.label&&_.push(x.label),l.hasOwnProperty(\\\"v\\\")&&(x.value=l.v,x.valueLabel=g(x.value,d),w(\\\"value\\\")&&_.push(x.valueLabel)),x.text=f(\\\"hovertext\\\")||f(\\\"text\\\"),w(\\\"text\\\")){var k=x.text;c.isValidTextValue(k)&&_.push(k)}o.loneHover({trace:a,x0:m-v*t.rpx1,x1:m+v*t.rpx1,y:y,idealAlign:t.pxmid[0]<0?\\\"left\\\":\\\"right\\\",text:_.join(\\\"<br>\\\"),name:h||w(\\\"name\\\")?a.name:void 0,color:f(\\\"hoverlabel.bgcolor\\\")||l.color,borderColor:f(\\\"hoverlabel.bordercolor\\\"),fontFamily:f(\\\"hoverlabel.font.family\\\"),fontSize:f(\\\"hoverlabel.font.size\\\"),fontColor:f(\\\"hoverlabel.font.color\\\"),nameLength:f(\\\"hoverlabel.namelength\\\"),textAlign:f(\\\"hoverlabel.align\\\"),hovertemplate:h,hovertemplateLabels:x,eventData:[M(t,a)]},{container:r._hoverlayer.node(),outerContainer:r._paper.node(),gd:e}),s._hasHoverLabel=!0}s._hasHoverEvent=!0,e.emit(\\\"plotly_hover\\\",{points:[M(t,a)],event:n.event})}}),t.on(\\\"mouseout\\\",function(t){var r=e._fullLayout,i=e._fullData[s.index],a=n.select(this).datum();s._hasHoverEvent&&(t.originalEvent=n.event,e.emit(\\\"plotly_unhover\\\",{points:[M(a,i)],event:n.event}),s._hasHoverEvent=!1),s._hasHoverLabel&&(o.loneUnhover(r._hoverlayer.node()),s._hasHoverLabel=!1)}),t.on(\\\"click\\\",function(t){var r=e._fullLayout,l=e._fullData[s.index];if(!1===u.triggerHandler(e,\\\"plotly_sunburstclick\\\",{points:[M(t,l)],event:n.event})||w(t)||b(t))r.hovermode&&(e._hoverdata=[M(t,l)],o.click(e,n.event));else if(!e._dragging&&!e._transitioning){a.call(\\\"_storeDirectGUIEdit\\\",l,r._tracePreGUI[l.uid],{level:l.level});var c=i.hierarchy,f=k(t),h=_(t)?function(t,e){var r;return t.eachAfter(function(t){for(var n=t.children||[],i=0;i<n.length;i++)if(k(n[i])===e)return r=t.copy()}),r||t}(c,f):x(c,f),p={data:[{level:k(h)}],traces:[s.index]},d={frame:{redraw:!1,duration:m.CLICK_TRANSITION_TIME},transition:{duration:m.CLICK_TRANSITION_TIME,easing:m.CLICK_TRANSITION_EASING},mode:\\\"immediate\\\",fromcurrent:!0};o.loneUnhover(r._hoverlayer.node()),a.call(\\\"animate\\\",e,p,d)}})}function M(t,e){var r=t.data.data,n={curveNumber:e.index,pointNumber:r.i,data:e._input,fullData:e};return p(n,e,r.i),n}e.exports=function(t,e,r,i){var a,o,s=t._fullLayout._sunburstlayer,l=!r,c=r&&r.duration>0;((a=s.selectAll(\\\"g.trace.sunburst\\\").data(e,function(t){return t[0].trace.uid})).enter().append(\\\"g\\\").classed(\\\"trace\\\",!0).classed(\\\"sunburst\\\",!0).attr(\\\"stroke-linejoin\\\",\\\"round\\\"),a.order(),c)?(i&&(o=i()),n.transition().duration(r.duration).ease(r.easing).each(\\\"end\\\",function(){o&&o()}).each(\\\"interrupt\\\",function(){o&&o()}).each(function(){s.selectAll(\\\"g.trace\\\").each(function(e){y(t,e,this,r)})})):a.each(function(e){y(t,e,this,r)});l&&a.exit().remove()}},{\\\"../../components/color\\\":580,\\\"../../components/drawing\\\":601,\\\"../../components/fx\\\":619,\\\"../../components/fx/helpers\\\":615,\\\"../../lib\\\":703,\\\"../../lib/events\\\":692,\\\"../../lib/setcursor\\\":723,\\\"../../lib/svg_text_utils\\\":727,\\\"../../registry\\\":831,\\\"../pie/helpers\\\":1054,\\\"../pie/plot\\\":1058,\\\"./constants\\\":1164,\\\"./style\\\":1170,d3:157,\\\"d3-hierarchy\\\":150}],1170:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../components/color\\\"),a=t(\\\"../../lib\\\");function o(t,e,r){var n=e.data.data,o=!e.children,s=n.i,l=a.castOption(r,s,\\\"marker.line.color\\\")||i.defaultLine,c=a.castOption(r,s,\\\"marker.line.width\\\")||0;t.style(\\\"stroke-width\\\",c).call(i.fill,n.color).call(i.stroke,l).style(\\\"opacity\\\",o?r.leaf.opacity:null)}e.exports={style:function(t){t._fullLayout._sunburstlayer.selectAll(\\\".trace\\\").each(function(t){var e=n.select(this),r=t[0].trace;e.style(\\\"opacity\\\",r.opacity),e.selectAll(\\\"path.surface\\\").each(function(t){n.select(this).call(o,t,r)})})},styleOne:o}},{\\\"../../components/color\\\":580,\\\"../../lib\\\":703,d3:157}],1171:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/color\\\"),i=t(\\\"../../components/colorscale/attributes\\\"),a=t(\\\"../../components/fx/hovertemplate_attributes\\\"),o=t(\\\"../../plots/attributes\\\"),s=t(\\\"../../lib/extend\\\").extendFlat,l=t(\\\"../../plot_api/edit_types\\\").overrideAll;function c(t){return{show:{valType:\\\"boolean\\\",dflt:!1},start:{valType:\\\"number\\\",dflt:null,editType:\\\"plot\\\"},end:{valType:\\\"number\\\",dflt:null,editType:\\\"plot\\\"},size:{valType:\\\"number\\\",dflt:null,min:0,editType:\\\"plot\\\"},project:{x:{valType:\\\"boolean\\\",dflt:!1},y:{valType:\\\"boolean\\\",dflt:!1},z:{valType:\\\"boolean\\\",dflt:!1}},color:{valType:\\\"color\\\",dflt:n.defaultLine},usecolormap:{valType:\\\"boolean\\\",dflt:!1},width:{valType:\\\"number\\\",min:1,max:16,dflt:2},highlight:{valType:\\\"boolean\\\",dflt:!0},highlightcolor:{valType:\\\"color\\\",dflt:n.defaultLine},highlightwidth:{valType:\\\"number\\\",min:1,max:16,dflt:2}}}var u=e.exports=l(s({z:{valType:\\\"data_array\\\"},x:{valType:\\\"data_array\\\"},y:{valType:\\\"data_array\\\"},text:{valType:\\\"string\\\",dflt:\\\"\\\",arrayOk:!0},hovertext:{valType:\\\"string\\\",dflt:\\\"\\\",arrayOk:!0},hovertemplate:a(),connectgaps:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"calc\\\"},surfacecolor:{valType:\\\"data_array\\\"}},i(\\\"\\\",{colorAttr:\\\"z or surfacecolor\\\",showScaleDflt:!0,autoColorDflt:!1,editTypeOverride:\\\"calc\\\"}),{contours:{x:c(),y:c(),z:c()},hidesurface:{valType:\\\"boolean\\\",dflt:!1},lightposition:{x:{valType:\\\"number\\\",min:-1e5,max:1e5,dflt:10},y:{valType:\\\"number\\\",min:-1e5,max:1e5,dflt:1e4},z:{valType:\\\"number\\\",min:-1e5,max:1e5,dflt:0}},lighting:{ambient:{valType:\\\"number\\\",min:0,max:1,dflt:.8},diffuse:{valType:\\\"number\\\",min:0,max:1,dflt:.8},specular:{valType:\\\"number\\\",min:0,max:2,dflt:.05},roughness:{valType:\\\"number\\\",min:0,max:1,dflt:.5},fresnel:{valType:\\\"number\\\",min:0,max:5,dflt:.2}},opacity:{valType:\\\"number\\\",min:0,max:1,dflt:1},_deprecated:{zauto:s({},i.zauto,{}),zmin:s({},i.zmin,{}),zmax:s({},i.zmax,{})},hoverinfo:s({},o.hoverinfo)}),\\\"calc\\\",\\\"nested\\\");u.x.editType=u.y.editType=u.z.editType=\\\"calc+clearAxisTypes\\\",u.transforms=void 0},{\\\"../../components/color\\\":580,\\\"../../components/colorscale/attributes\\\":587,\\\"../../components/fx/hovertemplate_attributes\\\":618,\\\"../../lib/extend\\\":693,\\\"../../plot_api/edit_types\\\":734,\\\"../../plots/attributes\\\":748}],1172:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale/calc\\\");e.exports=function(t,e){e.surfacecolor?n(t,e,{vals:e.surfacecolor,containerStr:\\\"\\\",cLetter:\\\"c\\\"}):n(t,e,{vals:e.z,containerStr:\\\"\\\",cLetter:\\\"c\\\"})}},{\\\"../../components/colorscale/calc\\\":588}],1173:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-surface3d\\\"),i=t(\\\"ndarray\\\"),a=t(\\\"ndarray-homography\\\"),o=t(\\\"ndarray-fill\\\"),s=t(\\\"../../lib\\\").isArrayOrTypedArray,l=t(\\\"../../lib/gl_format_color\\\").parseColorScale,c=t(\\\"../../lib/str2rgbarray\\\"),u=t(\\\"../../components/colorscale\\\").extractOpts,f=t(\\\"../heatmap/interp2d\\\"),h=t(\\\"../heatmap/find_empties\\\");function p(t,e,r){this.scene=t,this.uid=r,this.surface=e,this.data=null,this.showContour=[!1,!1,!1],this.contourStart=[null,null,null],this.contourEnd=[null,null,null],this.contourSize=[0,0,0],this.minValues=[1/0,1/0,1/0],this.maxValues=[-1/0,-1/0,-1/0],this.dataScaleX=1,this.dataScaleY=1,this.refineData=!0,this.objectOffset=[0,0,0]}var d=p.prototype;d.getXat=function(t,e,r,n){var i=s(this.data.x)?s(this.data.x[0])?this.data.x[e][t]:this.data.x[t]:t;return void 0===r?i:n.d2l(i,0,r)},d.getYat=function(t,e,r,n){var i=s(this.data.y)?s(this.data.y[0])?this.data.y[e][t]:this.data.y[e]:e;return void 0===r?i:n.d2l(i,0,r)},d.getZat=function(t,e,r,n){var i=this.data.z[e][t];return null===i&&this.data.connectgaps&&this.data._interpolatedZ&&(i=this.data._interpolatedZ[e][t]),void 0===r?i:n.d2l(i,0,r)},d.handlePick=function(t){if(t.object===this.surface){var e=(t.data.index[0]-1)/this.dataScaleX-1,r=(t.data.index[1]-1)/this.dataScaleY-1,n=Math.max(Math.min(Math.round(e),this.data.z[0].length-1),0),i=Math.max(Math.min(Math.round(r),this.data._ylength-1),0);t.index=[n,i],t.traceCoordinate=[this.getXat(n,i),this.getYat(n,i),this.getZat(n,i)],t.dataCoordinate=[this.getXat(n,i,this.data.xcalendar,this.scene.fullSceneLayout.xaxis),this.getYat(n,i,this.data.ycalendar,this.scene.fullSceneLayout.yaxis),this.getZat(n,i,this.data.zcalendar,this.scene.fullSceneLayout.zaxis)];for(var a=0;a<3;a++){var o=t.dataCoordinate[a];null!=o&&(t.dataCoordinate[a]*=this.scene.dataScale[a])}var s=this.data.hovertext||this.data.text;return Array.isArray(s)&&s[i]&&void 0!==s[i][n]?t.textLabel=s[i][n]:t.textLabel=s||\\\"\\\",t.data.dataCoordinate=t.dataCoordinate.slice(),this.surface.highlight(t.data),this.scene.glplot.spikes.position=t.dataCoordinate,!0}};var g=[2,3,5,7,11,13,17,19,23,29,31,37,41,43,47,53,59,61,67,71,73,79,83,89,97,101,103,107,109,113,127,131,137,139,149,151,157,163,167,173,179,181,191,193,197,199,211,223,227,229,233,239,241,251,257,263,269,271,277,281,283,293,307,311,313,317,331,337,347,349,353,359,367,373,379,383,389,397,401,409,419,421,431,433,439,443,449,457,461,463,467,479,487,491,499,503,509,521,523,541,547,557,563,569,571,577,587,593,599,601,607,613,617,619,631,641,643,647,653,659,661,673,677,683,691,701,709,719,727,733,739,743,751,757,761,769,773,787,797,809,811,821,823,827,829,839,853,857,859,863,877,881,883,887,907,911,919,929,937,941,947,953,967,971,977,983,991,997,1009,1013,1019,1021,1031,1033,1039,1049,1051,1061,1063,1069,1087,1091,1093,1097,1103,1109,1117,1123,1129,1151,1153,1163,1171,1181,1187,1193,1201,1213,1217,1223,1229,1231,1237,1249,1259,1277,1279,1283,1289,1291,1297,1301,1303,1307,1319,1321,1327,1361,1367,1373,1381,1399,1409,1423,1427,1429,1433,1439,1447,1451,1453,1459,1471,1481,1483,1487,1489,1493,1499,1511,1523,1531,1543,1549,1553,1559,1567,1571,1579,1583,1597,1601,1607,1609,1613,1619,1621,1627,1637,1657,1663,1667,1669,1693,1697,1699,1709,1721,1723,1733,1741,1747,1753,1759,1777,1783,1787,1789,1801,1811,1823,1831,1847,1861,1867,1871,1873,1877,1879,1889,1901,1907,1913,1931,1933,1949,1951,1973,1979,1987,1993,1997,1999,2003,2011,2017,2027,2029,2039,2053,2063,2069,2081,2083,2087,2089,2099,2111,2113,2129,2131,2137,2141,2143,2153,2161,2179,2203,2207,2213,2221,2237,2239,2243,2251,2267,2269,2273,2281,2287,2293,2297,2309,2311,2333,2339,2341,2347,2351,2357,2371,2377,2381,2383,2389,2393,2399,2411,2417,2423,2437,2441,2447,2459,2467,2473,2477,2503,2521,2531,2539,2543,2549,2551,2557,2579,2591,2593,2609,2617,2621,2633,2647,2657,2659,2663,2671,2677,2683,2687,2689,2693,2699,2707,2711,2713,2719,2729,2731,2741,2749,2753,2767,2777,2789,2791,2797,2801,2803,2819,2833,2837,2843,2851,2857,2861,2879,2887,2897,2903,2909,2917,2927,2939,2953,2957,2963,2969,2971,2999];function v(t,e){if(t<e)return 0;for(var r=0;0===Math.floor(t%e);)t/=e,r++;return r}function m(t){for(var e=[],r=0;r<g.length;r++){var n=g[r];e.push(v(t,n))}return e}function y(t){for(var e=m(t),r=t,n=0;n<g.length;n++)if(e[n]>0){r=g[n];break}return r}function x(t,e){if(!(t<1||e<1)){for(var r=m(t),n=m(e),i=1,a=0;a<g.length;a++)i*=Math.pow(g[a],Math.max(r[a],n[a]));return i}}d.calcXnums=function(t){var e,r=[];for(e=1;e<t;e++){var n=this.getXat(e-1,0),i=this.getXat(e,0);r[e-1]=i!==n&&null!=n&&null!=i?Math.abs(i-n):0}var a=0;for(e=1;e<t;e++)a+=r[e-1];for(e=1;e<t;e++)0===r[e-1]?r[e-1]=1:r[e-1]=Math.round(a/r[e-1]);return r},d.calcYnums=function(t){var e,r=[];for(e=1;e<t;e++){var n=this.getYat(0,e-1),i=this.getYat(0,e);r[e-1]=i!==n&&null!=n&&null!=i?Math.abs(i-n):0}var a=0;for(e=1;e<t;e++)a+=r[e-1];for(e=1;e<t;e++)0===r[e-1]?r[e-1]=1:r[e-1]=Math.round(a/r[e-1]);return r};var b=[1,2,4,6,12,24,36,48,60,120,180,240,360,720,840,1260],_=b[9],w=b[13];function k(t,e){for(var r=!1,n=0;n<t.length;n++)if(e===t[n]){r=!0;break}!1===r&&t.push(e)}d.estimateScale=function(t,e){for(var r=1+function(t){if(0!==t.length){for(var e=1,r=0;r<t.length;r++)e=x(e,t[r]);return e}}(0===e?this.calcXnums(t):this.calcYnums(t));r<_;)r*=2;for(;r>w;)r--,r/=y(r),++r<_&&(r=w);var n=Math.round(r/t);return n>1?n:1},d.refineCoords=function(t){for(var e=this.dataScaleX,r=this.dataScaleY,n=t[0].shape[0],o=t[0].shape[1],s=0|Math.floor(t[0].shape[0]*e+1),l=0|Math.floor(t[0].shape[1]*r+1),c=1+n+1,u=1+o+1,f=i(new Float32Array(c*u),[c,u]),h=0;h<t.length;++h){this.surface.padField(f,t[h]);var p=i(new Float32Array(s*l),[s,l]);a(p,f,[e,0,0,0,r,0,0,0,1]),t[h]=p}},d.setContourLevels=function(){var t,e,r,n=[[],[],[]],i=[!1,!1,!1],a=!1;for(t=0;t<3;++t)if(this.showContour[t]&&(a=!0,this.contourSize[t]>0&&null!==this.contourStart[t]&&null!==this.contourEnd[t]&&this.contourEnd[t]>this.contourStart[t]))for(i[t]=!0,e=this.contourStart[t];e<this.contourEnd[t];e+=this.contourSize[t])r=e*this.scene.dataScale[t],k(n[t],r);if(a){var o=[[],[],[]];for(t=0;t<3;++t)this.showContour[t]&&(o[t]=i[t]?n[t]:this.scene.contourLevels[t]);this.surface.update({levels:o})}},d.update=function(t){var e,r,n,a,s=this.scene,p=s.fullSceneLayout,d=this.surface,g=t.opacity,v=l(t,g),m=s.dataScale,y=t.z[0].length,x=t._ylength,b=s.contourLevels;this.data=t;var _=[];for(e=0;e<3;e++)for(_[e]=[],r=0;r<y;r++)_[e][r]=[];for(r=0;r<y;r++)for(n=0;n<x;n++)_[0][r][n]=this.getXat(r,n,t.xcalendar,p.xaxis),_[1][r][n]=this.getYat(r,n,t.ycalendar,p.yaxis),_[2][r][n]=this.getZat(r,n,t.zcalendar,p.zaxis);if(t.connectgaps)for(t._emptypoints=h(_[2]),f(_[2],t._emptypoints),t._interpolatedZ=[],r=0;r<y;r++)for(t._interpolatedZ[r]=[],n=0;n<x;n++)t._interpolatedZ[r][n]=_[2][r][n];for(e=0;e<3;e++)for(r=0;r<y;r++)for(n=0;n<x;n++)null==(a=_[e][r][n])?_[e][r][n]=NaN:a=_[e][r][n]*=m[e];for(e=0;e<3;e++)for(r=0;r<y;r++)for(n=0;n<x;n++)null!=(a=_[e][r][n])&&(this.minValues[e]>a&&(this.minValues[e]=a),this.maxValues[e]<a&&(this.maxValues[e]=a));for(e=0;e<3;e++)this.objectOffset[e]=.5*(this.minValues[e]+this.maxValues[e]);for(e=0;e<3;e++)for(r=0;r<y;r++)for(n=0;n<x;n++)null!=(a=_[e][r][n])&&(_[e][r][n]-=this.objectOffset[e]);var k=[i(new Float32Array(y*x),[y,x]),i(new Float32Array(y*x),[y,x]),i(new Float32Array(y*x),[y,x])];o(k[0],function(t,e){return _[0][t][e]}),o(k[1],function(t,e){return _[1][t][e]}),o(k[2],function(t,e){return _[2][t][e]}),_=[];var T={colormap:v,levels:[[],[],[]],showContour:[!0,!0,!0],showSurface:!t.hidesurface,contourProject:[[!1,!1,!1],[!1,!1,!1],[!1,!1,!1]],contourWidth:[1,1,1],contourColor:[[1,1,1,1],[1,1,1,1],[1,1,1,1]],contourTint:[1,1,1],dynamicColor:[[1,1,1,1],[1,1,1,1],[1,1,1,1]],dynamicWidth:[1,1,1],dynamicTint:[1,1,1],opacity:t.opacity},A=u(t);if(T.intensityBounds=[A.min,A.max],t.surfacecolor){var M=i(new Float32Array(y*x),[y,x]);o(M,function(e,r){return t.surfacecolor[r][e]}),k.push(M)}else T.intensityBounds[0]*=m[2],T.intensityBounds[1]*=m[2];(w<k[0].shape[0]||w<k[0].shape[1])&&(this.refineData=!1),!0===this.refineData&&(this.dataScaleX=this.estimateScale(k[0].shape[0],0),this.dataScaleY=this.estimateScale(k[0].shape[1],1),1===this.dataScaleX&&1===this.dataScaleY||this.refineCoords(k)),t.surfacecolor&&(T.intensity=k.pop());var S=[!0,!0,!0],E=[\\\"x\\\",\\\"y\\\",\\\"z\\\"];for(e=0;e<3;++e){var C=t.contours[E[e]];S[e]=C.highlight,T.showContour[e]=C.show||C.highlight,T.showContour[e]&&(T.contourProject[e]=[C.project.x,C.project.y,C.project.z],C.show?(this.showContour[e]=!0,T.levels[e]=b[e],d.highlightColor[e]=T.contourColor[e]=c(C.color),C.usecolormap?d.highlightTint[e]=T.contourTint[e]=0:d.highlightTint[e]=T.contourTint[e]=1,T.contourWidth[e]=C.width,this.contourStart[e]=C.start,this.contourEnd[e]=C.end,this.contourSize[e]=C.size):(this.showContour[e]=!1,this.contourStart[e]=null,this.contourEnd[e]=null,this.contourSize[e]=0),C.highlight&&(T.dynamicColor[e]=c(C.highlightcolor),T.dynamicWidth[e]=C.highlightwidth))}(function(t){var e=t[0].rgb,r=t[t.length-1].rgb;return e[0]===r[0]&&e[1]===r[1]&&e[2]===r[2]&&e[3]===r[3]})(v)&&(T.vertexColor=!0),T.objectOffset=this.objectOffset,T.coords=k,d.update(T),d.visible=t.visible,d.enableDynamic=S,d.enableHighlight=S,d.snapToData=!0,\\\"lighting\\\"in t&&(d.ambientLight=t.lighting.ambient,d.diffuseLight=t.lighting.diffuse,d.specularLight=t.lighting.specular,d.roughness=t.lighting.roughness,d.fresnel=t.lighting.fresnel),\\\"lightposition\\\"in t&&(d.lightPosition=[t.lightposition.x,t.lightposition.y,t.lightposition.z]),g&&g<1&&(d.supportsTransparency=!0)},d.dispose=function(){this.scene.glplot.remove(this.surface),this.surface.dispose()},e.exports=function(t,e){var r=t.glplot.gl,i=n({gl:r}),a=new p(t,i,e.uid);return i._trace=a,a.update(e),t.glplot.add(i),a}},{\\\"../../components/colorscale\\\":592,\\\"../../lib\\\":703,\\\"../../lib/gl_format_color\\\":700,\\\"../../lib/str2rgbarray\\\":726,\\\"../heatmap/find_empties\\\":978,\\\"../heatmap/interp2d\\\":981,\\\"gl-surface3d\\\":315,ndarray:445,\\\"ndarray-fill\\\":435,\\\"ndarray-homography\\\":437}],1174:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../registry\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../components/colorscale/defaults\\\"),o=t(\\\"./attributes\\\");function s(t,e,r){e in t&&!(r in t)&&(t[r]=t[e])}e.exports=function(t,e,r,l){var c,u;function f(r,n){return i.coerce(t,e,o,r,n)}var h=f(\\\"x\\\"),p=f(\\\"y\\\"),d=f(\\\"z\\\");if(!d||!d.length||h&&h.length<1||p&&p.length<1)e.visible=!1;else{e._xlength=Array.isArray(h)&&i.isArrayOrTypedArray(h[0])?d.length:d[0].length,e._ylength=d.length,n.getComponentMethod(\\\"calendars\\\",\\\"handleTraceDefaults\\\")(t,e,[\\\"x\\\",\\\"y\\\",\\\"z\\\"],l),f(\\\"text\\\"),f(\\\"hovertext\\\"),f(\\\"hovertemplate\\\"),[\\\"lighting.ambient\\\",\\\"lighting.diffuse\\\",\\\"lighting.specular\\\",\\\"lighting.roughness\\\",\\\"lighting.fresnel\\\",\\\"lightposition.x\\\",\\\"lightposition.y\\\",\\\"lightposition.z\\\",\\\"hidesurface\\\",\\\"connectgaps\\\",\\\"opacity\\\"].forEach(function(t){f(t)});var g=f(\\\"surfacecolor\\\"),v=[\\\"x\\\",\\\"y\\\",\\\"z\\\"];for(c=0;c<3;++c){var m=\\\"contours.\\\"+v[c],y=f(m+\\\".show\\\"),x=f(m+\\\".highlight\\\");if(y||x)for(u=0;u<3;++u)f(m+\\\".project.\\\"+v[u]);y&&(f(m+\\\".color\\\"),f(m+\\\".width\\\"),f(m+\\\".usecolormap\\\")),x&&(f(m+\\\".highlightcolor\\\"),f(m+\\\".highlightwidth\\\")),f(m+\\\".start\\\"),f(m+\\\".end\\\"),f(m+\\\".size\\\")}g||(s(t,\\\"zmin\\\",\\\"cmin\\\"),s(t,\\\"zmax\\\",\\\"cmax\\\"),s(t,\\\"zauto\\\",\\\"cauto\\\")),a(t,e,l,f,{prefix:\\\"\\\",cLetter:\\\"c\\\"}),e._length=null}}},{\\\"../../components/colorscale/defaults\\\":590,\\\"../../lib\\\":703,\\\"../../registry\\\":831,\\\"./attributes\\\":1171}],1175:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),colorbar:{min:\\\"cmin\\\",max:\\\"cmax\\\"},calc:t(\\\"./calc\\\"),plot:t(\\\"./convert\\\"),moduleType:\\\"trace\\\",name:\\\"surface\\\",basePlotModule:t(\\\"../../plots/gl3d\\\"),categories:[\\\"gl3d\\\",\\\"2dMap\\\",\\\"noOpacity\\\"],meta:{}}},{\\\"../../plots/gl3d\\\":791,\\\"./attributes\\\":1171,\\\"./calc\\\":1172,\\\"./convert\\\":1173,\\\"./defaults\\\":1174}],1176:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/annotations/attributes\\\"),i=t(\\\"../../lib/extend\\\").extendFlat,a=t(\\\"../../plot_api/edit_types\\\").overrideAll,o=t(\\\"../../plots/font_attributes\\\"),s=t(\\\"../../plots/domain\\\").attributes;(e.exports=a({domain:s({name:\\\"table\\\",trace:!0}),columnwidth:{valType:\\\"number\\\",arrayOk:!0,dflt:null},columnorder:{valType:\\\"data_array\\\"},header:{values:{valType:\\\"data_array\\\",dflt:[]},format:{valType:\\\"data_array\\\",dflt:[]},prefix:{valType:\\\"string\\\",arrayOk:!0,dflt:null},suffix:{valType:\\\"string\\\",arrayOk:!0,dflt:null},height:{valType:\\\"number\\\",dflt:28},align:i({},n.align,{arrayOk:!0}),line:{width:{valType:\\\"number\\\",arrayOk:!0,dflt:1},color:{valType:\\\"color\\\",arrayOk:!0,dflt:\\\"grey\\\"}},fill:{color:{valType:\\\"color\\\",arrayOk:!0,dflt:\\\"white\\\"}},font:i({},o({arrayOk:!0}))},cells:{values:{valType:\\\"data_array\\\",dflt:[]},format:{valType:\\\"data_array\\\",dflt:[]},prefix:{valType:\\\"string\\\",arrayOk:!0,dflt:null},suffix:{valType:\\\"string\\\",arrayOk:!0,dflt:null},height:{valType:\\\"number\\\",dflt:20},align:i({},n.align,{arrayOk:!0}),line:{width:{valType:\\\"number\\\",arrayOk:!0,dflt:1},color:{valType:\\\"color\\\",arrayOk:!0,dflt:\\\"grey\\\"}},fill:{color:{valType:\\\"color\\\",arrayOk:!0,dflt:\\\"white\\\"}},font:i({},o({arrayOk:!0}))}},\\\"calc\\\",\\\"from-root\\\")).transforms=void 0},{\\\"../../components/annotations/attributes\\\":563,\\\"../../lib/extend\\\":693,\\\"../../plot_api/edit_types\\\":734,\\\"../../plots/domain\\\":776,\\\"../../plots/font_attributes\\\":777}],1177:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/get_data\\\").getModuleCalcData,i=t(\\\"./plot\\\");r.name=\\\"table\\\",r.plot=function(t){var e=n(t.calcdata,\\\"table\\\")[0];e.length&&i(t,e)},r.clean=function(t,e,r,n){var i=n._has&&n._has(\\\"table\\\"),a=e._has&&e._has(\\\"table\\\");i&&!a&&n._paperdiv.selectAll(\\\".table\\\").remove()}},{\\\"../../plots/get_data\\\":786,\\\"./plot\\\":1184}],1178:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib/gup\\\").wrap;e.exports=function(){return n({})}},{\\\"../../lib/gup\\\":701}],1179:[function(t,e,r){\\\"use strict\\\";e.exports={cellPad:8,columnExtentOffset:10,columnTitleOffset:28,emptyHeaderHeight:16,latexCheck:/^\\\\$.*\\\\$$/,goldenRatio:1.618,lineBreaker:\\\"<br>\\\",maxDimensionCount:60,overdrag:45,releaseTransitionDuration:120,releaseTransitionEase:\\\"cubic-out\\\",scrollbarCaptureWidth:18,scrollbarHideDelay:1e3,scrollbarHideDuration:1e3,scrollbarOffset:5,scrollbarWidth:8,transitionDuration:100,transitionEase:\\\"cubic-out\\\",uplift:5,wrapSpacer:\\\" \\\",wrapSplitCharacter:\\\" \\\",cn:{table:\\\"table\\\",tableControlView:\\\"table-control-view\\\",scrollBackground:\\\"scroll-background\\\",yColumn:\\\"y-column\\\",columnBlock:\\\"column-block\\\",scrollAreaClip:\\\"scroll-area-clip\\\",scrollAreaClipRect:\\\"scroll-area-clip-rect\\\",columnBoundary:\\\"column-boundary\\\",columnBoundaryClippath:\\\"column-boundary-clippath\\\",columnBoundaryRect:\\\"column-boundary-rect\\\",columnCells:\\\"column-cells\\\",columnCell:\\\"column-cell\\\",cellRect:\\\"cell-rect\\\",cellText:\\\"cell-text\\\",cellTextHolder:\\\"cell-text-holder\\\",scrollbarKit:\\\"scrollbar-kit\\\",scrollbar:\\\"scrollbar\\\",scrollbarSlider:\\\"scrollbar-slider\\\",scrollbarGlyph:\\\"scrollbar-glyph\\\",scrollbarCaptureZone:\\\"scrollbar-capture-zone\\\"}}},{}],1180:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./constants\\\"),i=t(\\\"../../lib/extend\\\").extendFlat,a=t(\\\"fast-isnumeric\\\");function o(t){if(Array.isArray(t)){for(var e=0,r=0;r<t.length;r++)e=Math.max(e,o(t[r]));return e}return t}function s(t,e){return t+e}function l(t){var e,r=t.slice(),n=1/0,i=0;for(e=0;e<r.length;e++)Array.isArray(r[e])||(r[e]=[r[e]]),n=Math.min(n,r[e].length),i=Math.max(i,r[e].length);if(n!==i)for(e=0;e<r.length;e++){var a=i-r[e].length;a&&(r[e]=r[e].concat(c(a)))}return r}function c(t){for(var e=new Array(t),r=0;r<t;r++)e[r]=\\\"\\\";return e}function u(t){return t.calcdata.columns.reduce(function(e,r){return r.xIndex<t.xIndex?e+r.columnWidth:e},0)}function f(t,e){return Object.keys(t).map(function(r){return i({},t[r],{auxiliaryBlocks:e})})}function h(t,e){for(var r,n={},i=0,a=0,o={firstRowIndex:null,lastRowIndex:null,rows:[]},s=0,l=0,c=0;c<t.length;c++)r=t[c],o.rows.push({rowIndex:c,rowHeight:r}),((a+=r)>=e||c===t.length-1)&&(n[i]=o,o.key=l++,o.firstRowIndex=s,o.lastRowIndex=c,o={firstRowIndex:null,lastRowIndex:null,rows:[]},i+=a,s=c+1,a=0);return n}e.exports=function(t,e){var r=l(e.cells.values),p=function(t){return t.slice(e.header.values.length,t.length)},d=l(e.header.values);d.length&&!d[0].length&&(d[0]=[\\\"\\\"],d=l(d));var g=d.concat(p(r).map(function(){return c((d[0]||[\\\"\\\"]).length)})),v=e.domain,m=Math.floor(t._fullLayout._size.w*(v.x[1]-v.x[0])),y=Math.floor(t._fullLayout._size.h*(v.y[1]-v.y[0])),x=e.header.values.length?g[0].map(function(){return e.header.height}):[n.emptyHeaderHeight],b=r.length?r[0].map(function(){return e.cells.height}):[],_=x.reduce(s,0),w=h(b,y-_+n.uplift),k=f(h(x,_),[]),T=f(w,k),A={},M=e._fullInput.columnorder.concat(p(r.map(function(t,e){return e}))),S=g.map(function(t,r){var n=Array.isArray(e.columnwidth)?e.columnwidth[Math.min(r,e.columnwidth.length-1)]:e.columnwidth;return a(n)?Number(n):1}),E=S.reduce(s,0);S=S.map(function(t){return t/E*m});var C=Math.max(o(e.header.line.width),o(e.cells.line.width)),L={key:e.uid+t._context.staticPlot,translateX:v.x[0]*t._fullLayout._size.w,translateY:t._fullLayout._size.h*(1-v.y[1]),size:t._fullLayout._size,width:m,maxLineWidth:C,height:y,columnOrder:M,groupHeight:y,rowBlocks:T,headerRowBlocks:k,scrollY:0,cells:i({},e.cells,{values:r}),headerCells:i({},e.header,{values:g}),gdColumns:g.map(function(t){return t[0]}),gdColumnsOriginalOrder:g.map(function(t){return t[0]}),prevPages:[0,0],scrollbarState:{scrollbarScrollInProgress:!1},columns:g.map(function(t,e){var r=A[t];return A[t]=(r||0)+1,{key:t+\\\"__\\\"+A[t],label:t,specIndex:e,xIndex:M[e],xScale:u,x:void 0,calcdata:void 0,columnWidth:S[e]}})};return L.columns.forEach(function(t){t.calcdata=L,t.x=u(t)}),L}},{\\\"../../lib/extend\\\":693,\\\"./constants\\\":1179,\\\"fast-isnumeric\\\":224}],1181:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib/extend\\\").extendFlat;r.splitToPanels=function(t){var e=[0,0],r=n({},t,{key:\\\"header\\\",type:\\\"header\\\",page:0,prevPages:e,currentRepaint:[null,null],dragHandle:!0,values:t.calcdata.headerCells.values[t.specIndex],rowBlocks:t.calcdata.headerRowBlocks,calcdata:n({},t.calcdata,{cells:t.calcdata.headerCells})});return[n({},t,{key:\\\"cells1\\\",type:\\\"cells\\\",page:0,prevPages:e,currentRepaint:[null,null],dragHandle:!1,values:t.calcdata.cells.values[t.specIndex],rowBlocks:t.calcdata.rowBlocks}),n({},t,{key:\\\"cells2\\\",type:\\\"cells\\\",page:1,prevPages:e,currentRepaint:[null,null],dragHandle:!1,values:t.calcdata.cells.values[t.specIndex],rowBlocks:t.calcdata.rowBlocks}),r]},r.splitToCells=function(t){var e=function(t){var e=t.rowBlocks[t.page],r=e?e.rows[0].rowIndex:0,n=e?r+e.rows.length:0;return[r,n]}(t);return(t.values||[]).slice(e[0],e[1]).map(function(r,n){return{keyWithinBlock:n+(\\\"string\\\"==typeof r&&r.match(/[<$&> ]/)?\\\"_keybuster_\\\"+Math.random():\\\"\\\"),key:e[0]+n,column:t,calcdata:t.calcdata,page:t.page,rowBlocks:t.rowBlocks,value:r}})}},{\\\"../../lib/extend\\\":693}],1182:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./attributes\\\"),a=t(\\\"../../plots/domain\\\").defaults;e.exports=function(t,e,r,o){function s(r,a){return n.coerce(t,e,i,r,a)}a(e,o,s),s(\\\"columnwidth\\\"),s(\\\"header.values\\\"),s(\\\"header.format\\\"),s(\\\"header.align\\\"),s(\\\"header.prefix\\\"),s(\\\"header.suffix\\\"),s(\\\"header.height\\\"),s(\\\"header.line.width\\\"),s(\\\"header.line.color\\\"),s(\\\"header.fill.color\\\"),n.coerceFont(s,\\\"header.font\\\",n.extendFlat({},o.font)),function(t,e){for(var r=t.columnorder||[],n=t.header.values.length,i=r.slice(0,n),a=i.slice().sort(function(t,e){return t-e}),o=i.map(function(t){return a.indexOf(t)}),s=o.length;s<n;s++)o.push(s);e(\\\"columnorder\\\",o)}(e,s),s(\\\"cells.values\\\"),s(\\\"cells.format\\\"),s(\\\"cells.align\\\"),s(\\\"cells.prefix\\\"),s(\\\"cells.suffix\\\"),s(\\\"cells.height\\\"),s(\\\"cells.line.width\\\"),s(\\\"cells.line.color\\\"),s(\\\"cells.fill.color\\\"),n.coerceFont(s,\\\"cells.font\\\",n.extendFlat({},o.font)),e._length=null}},{\\\"../../lib\\\":703,\\\"../../plots/domain\\\":776,\\\"./attributes\\\":1176}],1183:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),calc:t(\\\"./calc\\\"),plot:t(\\\"./plot\\\"),moduleType:\\\"trace\\\",name:\\\"table\\\",basePlotModule:t(\\\"./base_plot\\\"),categories:[\\\"noOpacity\\\"],meta:{}}},{\\\"./attributes\\\":1176,\\\"./base_plot\\\":1177,\\\"./calc\\\":1178,\\\"./defaults\\\":1182,\\\"./plot\\\":1184}],1184:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"./constants\\\"),i=t(\\\"d3\\\"),a=t(\\\"../../lib/gup\\\"),o=t(\\\"../../components/drawing\\\"),s=t(\\\"../../lib/svg_text_utils\\\"),l=t(\\\"../../lib\\\").raiseToTop,c=t(\\\"../../lib\\\").cancelTransition,u=t(\\\"./data_preparation_helper\\\"),f=t(\\\"./data_split_helpers\\\"),h=t(\\\"../../components/color\\\");function p(t){return Math.ceil(t.calcdata.maxLineWidth/2)}function d(t,e){return\\\"clip\\\"+t._fullLayout._uid+\\\"_scrollAreaBottomClip_\\\"+e.key}function g(t,e){return\\\"clip\\\"+t._fullLayout._uid+\\\"_columnBoundaryClippath_\\\"+e.calcdata.key+\\\"_\\\"+e.specIndex}function v(t){return[].concat.apply([],t.map(function(t){return t})).map(function(t){return t.__data__})}function m(t,e,r){var o=t.selectAll(\\\".\\\"+n.cn.scrollbarKit).data(a.repeat,a.keyFun);o.enter().append(\\\"g\\\").classed(n.cn.scrollbarKit,!0).style(\\\"shape-rendering\\\",\\\"geometricPrecision\\\"),o.each(function(t){var e=t.scrollbarState;e.totalHeight=function(t){var e=t.rowBlocks;return I(e,e.length-1)+(e.length?D(e[e.length-1],1/0):1)}(t),e.scrollableAreaHeight=t.groupHeight-A(t),e.currentlyVisibleHeight=Math.min(e.totalHeight,e.scrollableAreaHeight),e.ratio=e.currentlyVisibleHeight/e.totalHeight,e.barLength=Math.max(e.ratio*e.currentlyVisibleHeight,n.goldenRatio*n.scrollbarWidth),e.barWiggleRoom=e.currentlyVisibleHeight-e.barLength,e.wiggleRoom=Math.max(0,e.totalHeight-e.scrollableAreaHeight),e.topY=0===e.barWiggleRoom?0:t.scrollY/e.wiggleRoom*e.barWiggleRoom,e.bottomY=e.topY+e.barLength,e.dragMultiplier=e.wiggleRoom/e.barWiggleRoom}).attr(\\\"transform\\\",function(t){return\\\"translate(\\\"+(t.width+n.scrollbarWidth/2+n.scrollbarOffset)+\\\" \\\"+A(t)+\\\")\\\"});var s=o.selectAll(\\\".\\\"+n.cn.scrollbar).data(a.repeat,a.keyFun);s.enter().append(\\\"g\\\").classed(n.cn.scrollbar,!0);var l=s.selectAll(\\\".\\\"+n.cn.scrollbarSlider).data(a.repeat,a.keyFun);l.enter().append(\\\"g\\\").classed(n.cn.scrollbarSlider,!0),l.attr(\\\"transform\\\",function(t){return\\\"translate(0 \\\"+(t.scrollbarState.topY||0)+\\\")\\\"});var c=l.selectAll(\\\".\\\"+n.cn.scrollbarGlyph).data(a.repeat,a.keyFun);c.enter().append(\\\"line\\\").classed(n.cn.scrollbarGlyph,!0).attr(\\\"stroke\\\",\\\"black\\\").attr(\\\"stroke-width\\\",n.scrollbarWidth).attr(\\\"stroke-linecap\\\",\\\"round\\\").attr(\\\"y1\\\",n.scrollbarWidth/2),c.attr(\\\"y2\\\",function(t){return t.scrollbarState.barLength-n.scrollbarWidth/2}).attr(\\\"stroke-opacity\\\",function(t){return t.columnDragInProgress||!t.scrollbarState.barWiggleRoom||r?0:.4}),c.transition().delay(0).duration(0),c.transition().delay(n.scrollbarHideDelay).duration(n.scrollbarHideDuration).attr(\\\"stroke-opacity\\\",0);var u=s.selectAll(\\\".\\\"+n.cn.scrollbarCaptureZone).data(a.repeat,a.keyFun);u.enter().append(\\\"line\\\").classed(n.cn.scrollbarCaptureZone,!0).attr(\\\"stroke\\\",\\\"white\\\").attr(\\\"stroke-opacity\\\",.01).attr(\\\"stroke-width\\\",n.scrollbarCaptureWidth).attr(\\\"stroke-linecap\\\",\\\"butt\\\").attr(\\\"y1\\\",0).on(\\\"mousedown\\\",function(r){var n=i.event.y,a=this.getBoundingClientRect(),o=r.scrollbarState,s=n-a.top,l=i.scale.linear().domain([0,o.scrollableAreaHeight]).range([0,o.totalHeight]).clamp(!0);o.topY<=s&&s<=o.bottomY||S(e,t,null,l(s-o.barLength/2))(r)}).call(i.behavior.drag().origin(function(t){return i.event.stopPropagation(),t.scrollbarState.scrollbarScrollInProgress=!0,t}).on(\\\"drag\\\",S(e,t)).on(\\\"dragend\\\",function(){})),u.attr(\\\"y2\\\",function(t){return t.scrollbarState.scrollableAreaHeight}),e._context.staticPlot&&(c.remove(),u.remove())}function y(t,e,r,s){var l=function(t){var e=t.selectAll(\\\".\\\"+n.cn.columnCell).data(f.splitToCells,function(t){return t.keyWithinBlock});return e.enter().append(\\\"g\\\").classed(n.cn.columnCell,!0),e.exit().remove(),e}(function(t){var e=t.selectAll(\\\".\\\"+n.cn.columnCells).data(a.repeat,a.keyFun);return e.enter().append(\\\"g\\\").classed(n.cn.columnCells,!0),e.exit().remove(),e}(r));!function(t){t.each(function(t,e){var r=t.calcdata.cells.font,n=t.column.specIndex,i={size:_(r.size,n,e),color:_(r.color,n,e),family:_(r.family,n,e)};t.rowNumber=t.key,t.align=_(t.calcdata.cells.align,n,e),t.cellBorderWidth=_(t.calcdata.cells.line.width,n,e),t.font=i})}(l),function(t){t.attr(\\\"width\\\",function(t){return t.column.columnWidth}).attr(\\\"stroke-width\\\",function(t){return t.cellBorderWidth}).each(function(t){var e=i.select(this);h.stroke(e,_(t.calcdata.cells.line.color,t.column.specIndex,t.rowNumber)),h.fill(e,_(t.calcdata.cells.fill.color,t.column.specIndex,t.rowNumber))})}(function(t){var e=t.selectAll(\\\".\\\"+n.cn.cellRect).data(a.repeat,function(t){return t.keyWithinBlock});return e.enter().append(\\\"rect\\\").classed(n.cn.cellRect,!0),e}(l));var c=function(t){var e=t.selectAll(\\\".\\\"+n.cn.cellText).data(a.repeat,function(t){return t.keyWithinBlock});return e.enter().append(\\\"text\\\").classed(n.cn.cellText,!0).style(\\\"cursor\\\",function(){return\\\"auto\\\"}).on(\\\"mousedown\\\",function(){i.event.stopPropagation()}),e}(function(t){var e=t.selectAll(\\\".\\\"+n.cn.cellTextHolder).data(a.repeat,function(t){return t.keyWithinBlock});return e.enter().append(\\\"g\\\").classed(n.cn.cellTextHolder,!0).style(\\\"shape-rendering\\\",\\\"geometricPrecision\\\"),e}(l));!function(t){t.each(function(t){o.font(i.select(this),t.font)})}(c),x(c,e,s,t),O(l)}function x(t,e,r,a){t.text(function(t){var e=t.column.specIndex,r=t.rowNumber,a=t.value,o=\\\"string\\\"==typeof a,s=o&&a.match(/<br>/i),l=!o||s;t.mayHaveMarkup=o&&a.match(/[<&>]/);var c,u=\\\"string\\\"==typeof(c=a)&&c.match(n.latexCheck);t.latex=u;var f,h,p=u?\\\"\\\":_(t.calcdata.cells.prefix,e,r)||\\\"\\\",d=u?\\\"\\\":_(t.calcdata.cells.suffix,e,r)||\\\"\\\",g=u?null:_(t.calcdata.cells.format,e,r)||null,v=p+(g?i.format(g)(t.value):t.value)+d;if(t.wrappingNeeded=!t.wrapped&&!l&&!u&&(f=b(v)),t.cellHeightMayIncrease=s||u||t.mayHaveMarkup||(void 0===f?b(v):f),t.needsConvertToTspans=t.mayHaveMarkup||t.wrappingNeeded||t.latex,t.wrappingNeeded){var m=(\\\" \\\"===n.wrapSplitCharacter?v.replace(/<a href=/gi,\\\"<a_href=\\\"):v).split(n.wrapSplitCharacter),y=\\\" \\\"===n.wrapSplitCharacter?m.map(function(t){return t.replace(/<a_href=/gi,\\\"<a href=\\\")}):m;t.fragments=y.map(function(t){return{text:t,width:null}}),t.fragments.push({fragment:n.wrapSpacer,width:null}),h=y.join(n.lineBreaker)+n.lineBreaker+n.wrapSpacer}else delete t.fragments,h=v;return h}).attr(\\\"dy\\\",function(t){return t.needsConvertToTspans?0:\\\"0.75em\\\"}).each(function(t){var o=i.select(this),l=t.wrappingNeeded?C:L;t.needsConvertToTspans?s.convertToTspans(o,a,l(r,this,e,a,t)):i.select(this.parentNode).attr(\\\"transform\\\",function(t){return\\\"translate(\\\"+z(t)+\\\" \\\"+n.cellPad+\\\")\\\"}).attr(\\\"text-anchor\\\",function(t){return{left:\\\"start\\\",center:\\\"middle\\\",right:\\\"end\\\"}[t.align]})})}function b(t){return-1!==t.indexOf(n.wrapSplitCharacter)}function _(t,e,r){if(Array.isArray(t)){var n=t[Math.min(e,t.length-1)];return Array.isArray(n)?n[Math.min(r,n.length-1)]:n}return t}function w(t,e,r){t.transition().ease(n.releaseTransitionEase).duration(n.releaseTransitionDuration).attr(\\\"transform\\\",\\\"translate(\\\"+e.x+\\\" \\\"+r+\\\")\\\")}function k(t){return\\\"cells\\\"===t.type}function T(t){return\\\"header\\\"===t.type}function A(t){return(t.rowBlocks.length?t.rowBlocks[0].auxiliaryBlocks:[]).reduce(function(t,e){return t+D(e,1/0)},0)}function M(t,e,r){var n=v(e)[0];if(void 0!==n){var i=n.rowBlocks,a=n.calcdata,o=I(i,i.length),s=n.calcdata.groupHeight-A(n),l=a.scrollY=Math.max(0,Math.min(o-s,a.scrollY)),c=function(t,e,r){for(var n=[],i=0,a=0;a<t.length;a++){for(var o=t[a],s=o.rows,l=0,c=0;c<s.length;c++)l+=s[c].rowHeight;o.allRowsHeight=l,e<i+l&&e+r>i&&n.push(a),i+=l}return n}(i,l,s);1===c.length&&(c[0]===i.length-1?c.unshift(c[0]-1):c.push(c[0]+1)),c[0]%2&&c.reverse(),e.each(function(t,e){t.page=c[e],t.scrollY=l}),e.attr(\\\"transform\\\",function(t){return\\\"translate(0 \\\"+(I(t.rowBlocks,t.page)-t.scrollY)+\\\")\\\"}),t&&(E(t,r,e,c,n.prevPages,n,0),E(t,r,e,c,n.prevPages,n,1),m(r,t))}}function S(t,e,r,a){return function(o){var s=o.calcdata?o.calcdata:o,l=e.filter(function(t){return s.key===t.key}),c=r||s.scrollbarState.dragMultiplier,u=s.scrollY;s.scrollY=void 0===a?s.scrollY+c*i.event.dy:a;var f=l.selectAll(\\\".\\\"+n.cn.yColumn).selectAll(\\\".\\\"+n.cn.columnBlock).filter(k);return M(t,f,l),s.scrollY===u}}function E(t,e,r,n,i,a,o){n[o]!==i[o]&&(clearTimeout(a.currentRepaint[o]),a.currentRepaint[o]=setTimeout(function(){var a=r.filter(function(t,e){return e===o&&n[e]!==i[e]});y(t,e,a,r),i[o]=n[o]}))}function C(t,e,r,a){return function(){var o=i.select(e.parentNode);o.each(function(t){var e=t.fragments;o.selectAll(\\\"tspan.line\\\").each(function(t,r){e[r].width=this.getComputedTextLength()});var r,i,a=e[e.length-1].width,s=e.slice(0,-1),l=[],c=0,u=t.column.columnWidth-2*n.cellPad;for(t.value=\\\"\\\";s.length;)c+(i=(r=s.shift()).width+a)>u&&(t.value+=l.join(n.wrapSpacer)+n.lineBreaker,l=[],c=0),l.push(r.text),c+=i;c&&(t.value+=l.join(n.wrapSpacer)),t.wrapped=!0}),o.selectAll(\\\"tspan.line\\\").remove(),x(o.select(\\\".\\\"+n.cn.cellText),r,t,a),i.select(e.parentNode.parentNode).call(O)}}function L(t,e,r,a,o){return function(){if(!o.settledY){var s=i.select(e.parentNode),l=R(o),c=o.key-l.firstRowIndex,u=l.rows[c].rowHeight,f=o.cellHeightMayIncrease?e.parentNode.getBoundingClientRect().height+2*n.cellPad:u,h=Math.max(f,u);h-l.rows[c].rowHeight&&(l.rows[c].rowHeight=h,t.selectAll(\\\".\\\"+n.cn.columnCell).call(O),M(null,t.filter(k),0),m(r,a,!0)),s.attr(\\\"transform\\\",function(){var t=this.parentNode.getBoundingClientRect(),e=i.select(this.parentNode).select(\\\".\\\"+n.cn.cellRect).node().getBoundingClientRect(),r=this.transform.baseVal.consolidate(),a=e.top-t.top+(r?r.matrix.f:n.cellPad);return\\\"translate(\\\"+z(o,i.select(this.parentNode).select(\\\".\\\"+n.cn.cellTextHolder).node().getBoundingClientRect().width)+\\\" \\\"+a+\\\")\\\"}),o.settledY=!0}}}function z(t,e){switch(t.align){case\\\"left\\\":return n.cellPad;case\\\"right\\\":return t.column.columnWidth-(e||0)-n.cellPad;case\\\"center\\\":return(t.column.columnWidth-(e||0))/2;default:return n.cellPad}}function O(t){t.attr(\\\"transform\\\",function(t){var e=t.rowBlocks[0].auxiliaryBlocks.reduce(function(t,e){return t+D(e,1/0)},0);return\\\"translate(0 \\\"+(D(R(t),t.key)+e)+\\\")\\\"}).selectAll(\\\".\\\"+n.cn.cellRect).attr(\\\"height\\\",function(t){return(e=R(t),r=t.key,e.rows[r-e.firstRowIndex]).rowHeight;var e,r})}function I(t,e){for(var r=0,n=e-1;n>=0;n--)r+=P(t[n]);return r}function D(t,e){for(var r=0,n=0;n<t.rows.length&&t.rows[n].rowIndex<e;n++)r+=t.rows[n].rowHeight;return r}function P(t){var e=t.allRowsHeight;if(void 0!==e)return e;for(var r=0,n=0;n<t.rows.length;n++)r+=t.rows[n].rowHeight;return t.allRowsHeight=r,r}function R(t){return t.rowBlocks[t.page]}e.exports=function(t,e){var r=!t._context.staticPlot,s=t._fullLayout._paper.selectAll(\\\".\\\"+n.cn.table).data(e.map(function(e){var r=a.unwrap(e).trace;return u(t,r)}),a.keyFun);s.exit().remove(),s.enter().append(\\\"g\\\").classed(n.cn.table,!0).attr(\\\"overflow\\\",\\\"visible\\\").style(\\\"box-sizing\\\",\\\"content-box\\\").style(\\\"position\\\",\\\"absolute\\\").style(\\\"left\\\",0).style(\\\"overflow\\\",\\\"visible\\\").style(\\\"shape-rendering\\\",\\\"crispEdges\\\").style(\\\"pointer-events\\\",\\\"all\\\"),s.attr(\\\"width\\\",function(t){return t.width+t.size.l+t.size.r}).attr(\\\"height\\\",function(t){return t.height+t.size.t+t.size.b}).attr(\\\"transform\\\",function(t){return\\\"translate(\\\"+t.translateX+\\\",\\\"+t.translateY+\\\")\\\"});var h=s.selectAll(\\\".\\\"+n.cn.tableControlView).data(a.repeat,a.keyFun),x=h.enter().append(\\\"g\\\").classed(n.cn.tableControlView,!0).style(\\\"box-sizing\\\",\\\"content-box\\\");r&&x.on(\\\"mousemove\\\",function(e){h.filter(function(t){return e===t}).call(m,t)}).on(\\\"mousewheel\\\",function(e){if(!e.scrollbarState.wheeling){e.scrollbarState.wheeling=!0;var r=e.scrollY+i.event.deltaY;S(t,h,null,r)(e)||(i.event.stopPropagation(),i.event.preventDefault()),e.scrollbarState.wheeling=!1}}).call(m,t,!0),h.attr(\\\"transform\\\",function(t){return\\\"translate(\\\"+t.size.l+\\\" \\\"+t.size.t+\\\")\\\"});var b=h.selectAll(\\\".\\\"+n.cn.scrollBackground).data(a.repeat,a.keyFun);b.enter().append(\\\"rect\\\").classed(n.cn.scrollBackground,!0).attr(\\\"fill\\\",\\\"none\\\"),b.attr(\\\"width\\\",function(t){return t.width}).attr(\\\"height\\\",function(t){return t.height}),h.each(function(e){o.setClipUrl(i.select(this),d(t,e),t)});var _=h.selectAll(\\\".\\\"+n.cn.yColumn).data(function(t){return t.columns},a.keyFun);_.enter().append(\\\"g\\\").classed(n.cn.yColumn,!0),_.exit().remove(),_.attr(\\\"transform\\\",function(t){return\\\"translate(\\\"+t.x+\\\" 0)\\\"}),r&&_.call(i.behavior.drag().origin(function(e){return w(i.select(this),e,-n.uplift),l(this),e.calcdata.columnDragInProgress=!0,m(h.filter(function(t){return e.calcdata.key===t.key}),t),e}).on(\\\"drag\\\",function(t){var e=i.select(this),r=function(e){return(t===e?i.event.x:e.x)+e.columnWidth/2};t.x=Math.max(-n.overdrag,Math.min(t.calcdata.width+n.overdrag-t.columnWidth,i.event.x)),v(_).filter(function(e){return e.calcdata.key===t.calcdata.key}).sort(function(t,e){return r(t)-r(e)}).forEach(function(e,r){e.xIndex=r,e.x=t===e?e.x:e.xScale(e)}),_.filter(function(e){return t!==e}).transition().ease(n.transitionEase).duration(n.transitionDuration).attr(\\\"transform\\\",function(t){return\\\"translate(\\\"+t.x+\\\" 0)\\\"}),e.call(c).attr(\\\"transform\\\",\\\"translate(\\\"+t.x+\\\" -\\\"+n.uplift+\\\" )\\\")}).on(\\\"dragend\\\",function(e){var r=i.select(this),n=e.calcdata;e.x=e.xScale(e),e.calcdata.columnDragInProgress=!1,w(r,e,0),function(t,e,r){var n=e.gdColumnsOriginalOrder;e.gdColumns.sort(function(t,e){return r[n.indexOf(t)]-r[n.indexOf(e)]}),e.columnorder=r,t.emit(\\\"plotly_restyle\\\")}(t,n,n.columns.map(function(t){return t.xIndex}))})),_.each(function(e){o.setClipUrl(i.select(this),g(t,e),t)});var A=_.selectAll(\\\".\\\"+n.cn.columnBlock).data(f.splitToPanels,a.keyFun);A.enter().append(\\\"g\\\").classed(n.cn.columnBlock,!0).attr(\\\"id\\\",function(t){return t.key}),A.style(\\\"cursor\\\",function(t){return t.dragHandle?\\\"ew-resize\\\":t.calcdata.scrollbarState.barWiggleRoom?\\\"ns-resize\\\":\\\"default\\\"});var E=A.filter(T),C=A.filter(k);r&&C.call(i.behavior.drag().origin(function(t){return i.event.stopPropagation(),t}).on(\\\"drag\\\",S(t,h,-1)).on(\\\"dragend\\\",function(){})),y(t,h,E,A),y(t,h,C,A);var L=h.selectAll(\\\".\\\"+n.cn.scrollAreaClip).data(a.repeat,a.keyFun);L.enter().append(\\\"clipPath\\\").classed(n.cn.scrollAreaClip,!0).attr(\\\"id\\\",function(e){return d(t,e)});var z=L.selectAll(\\\".\\\"+n.cn.scrollAreaClipRect).data(a.repeat,a.keyFun);z.enter().append(\\\"rect\\\").classed(n.cn.scrollAreaClipRect,!0).attr(\\\"x\\\",-n.overdrag).attr(\\\"y\\\",-n.uplift).attr(\\\"fill\\\",\\\"none\\\"),z.attr(\\\"width\\\",function(t){return t.width+2*n.overdrag}).attr(\\\"height\\\",function(t){return t.height+n.uplift}),_.selectAll(\\\".\\\"+n.cn.columnBoundary).data(a.repeat,a.keyFun).enter().append(\\\"g\\\").classed(n.cn.columnBoundary,!0);var O=_.selectAll(\\\".\\\"+n.cn.columnBoundaryClippath).data(a.repeat,a.keyFun);O.enter().append(\\\"clipPath\\\").classed(n.cn.columnBoundaryClippath,!0),O.attr(\\\"id\\\",function(e){return g(t,e)});var I=O.selectAll(\\\".\\\"+n.cn.columnBoundaryRect).data(a.repeat,a.keyFun);I.enter().append(\\\"rect\\\").classed(n.cn.columnBoundaryRect,!0).attr(\\\"fill\\\",\\\"none\\\"),I.attr(\\\"width\\\",function(t){return t.columnWidth+2*p(t)}).attr(\\\"height\\\",function(t){return t.calcdata.height+2*p(t)+n.uplift}).attr(\\\"x\\\",function(t){return-p(t)}).attr(\\\"y\\\",function(t){return-p(t)}),M(null,C,h)}},{\\\"../../components/color\\\":580,\\\"../../components/drawing\\\":601,\\\"../../lib\\\":703,\\\"../../lib/gup\\\":701,\\\"../../lib/svg_text_utils\\\":727,\\\"./constants\\\":1179,\\\"./data_preparation_helper\\\":1180,\\\"./data_split_helpers\\\":1181,d3:157}],1185:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../box/attributes\\\"),i=t(\\\"../../lib/extend\\\").extendFlat;e.exports={y:n.y,x:n.x,x0:n.x0,y0:n.y0,name:i({},n.name,{}),orientation:i({},n.orientation,{}),bandwidth:{valType:\\\"number\\\",min:0,editType:\\\"calc\\\"},scalegroup:{valType:\\\"string\\\",dflt:\\\"\\\",editType:\\\"calc\\\"},scalemode:{valType:\\\"enumerated\\\",values:[\\\"width\\\",\\\"count\\\"],dflt:\\\"width\\\",editType:\\\"calc\\\"},spanmode:{valType:\\\"enumerated\\\",values:[\\\"soft\\\",\\\"hard\\\",\\\"manual\\\"],dflt:\\\"soft\\\",editType:\\\"calc\\\"},span:{valType:\\\"info_array\\\",items:[{valType:\\\"any\\\",editType:\\\"calc\\\"},{valType:\\\"any\\\",editType:\\\"calc\\\"}],editType:\\\"calc\\\"},line:{color:{valType:\\\"color\\\",editType:\\\"style\\\"},width:{valType:\\\"number\\\",min:0,dflt:2,editType:\\\"style\\\"},editType:\\\"plot\\\"},fillcolor:n.fillcolor,points:i({},n.boxpoints,{}),jitter:i({},n.jitter,{}),pointpos:i({},n.pointpos,{}),width:i({},n.width,{}),marker:n.marker,text:n.text,hovertext:n.hovertext,hovertemplate:n.hovertemplate,box:{visible:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"plot\\\"},width:{valType:\\\"number\\\",min:0,max:1,dflt:.25,editType:\\\"plot\\\"},fillcolor:{valType:\\\"color\\\",editType:\\\"style\\\"},line:{color:{valType:\\\"color\\\",editType:\\\"style\\\"},width:{valType:\\\"number\\\",min:0,editType:\\\"style\\\"},editType:\\\"style\\\"},editType:\\\"plot\\\"},meanline:{visible:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"plot\\\"},color:{valType:\\\"color\\\",editType:\\\"style\\\"},width:{valType:\\\"number\\\",min:0,editType:\\\"style\\\"},editType:\\\"plot\\\"},side:{valType:\\\"enumerated\\\",values:[\\\"both\\\",\\\"positive\\\",\\\"negative\\\"],dflt:\\\"both\\\",editType:\\\"calc\\\"},offsetgroup:n.offsetgroup,alignmentgroup:n.alignmentgroup,selected:n.selected,unselected:n.unselected,hoveron:{valType:\\\"flaglist\\\",flags:[\\\"violins\\\",\\\"points\\\",\\\"kde\\\"],dflt:\\\"violins+points+kde\\\",extras:[\\\"all\\\"],editType:\\\"style\\\"}}},{\\\"../../lib/extend\\\":693,\\\"../box/attributes\\\":864}],1186:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plots/cartesian/axes\\\"),a=t(\\\"../box/calc\\\"),o=t(\\\"./helpers\\\"),s=t(\\\"../../constants/numerical\\\").BADNUM;function l(t,e,r){var i=e.max-e.min;if(!i)return t.bandwidth?t.bandwidth:0;if(t.bandwidth)return Math.max(t.bandwidth,i/1e4);var a=r.length,o=n.stdev(r,a-1,e.mean);return Math.max(function(t,e,r){return 1.059*Math.min(e,r/1.349)*Math.pow(t,-.2)}(a,o,e.q3-e.q1),i/100)}function c(t,e,r,n){var a,o=t.spanmode,l=t.span||[],c=[e.min,e.max],u=[e.min-2*n,e.max+2*n];function f(n){var i=l[n],a=\\\"multicategory\\\"===r.type?r.r2c(i):r.d2c(i,0,t[e.valLetter+\\\"calendar\\\"]);return a===s?u[n]:a}var h={type:\\\"linear\\\",range:a=\\\"soft\\\"===o?u:\\\"hard\\\"===o?c:[f(0),f(1)]};return i.setConvert(h),h.cleanRange(),a}e.exports=function(t,e){var r=a(t,e);if(r[0].t.empty)return r;for(var s=t._fullLayout,u=i.getFromId(t,e[\\\"h\\\"===e.orientation?\\\"xaxis\\\":\\\"yaxis\\\"]),f=1/0,h=-1/0,p=0,d=0,g=0;g<r.length;g++){var v=r[g],m=v.pts.map(o.extractVal),y=v.bandwidth=l(e,v,m),x=v.span=c(e,v,u,y);if(v.min===v.max&&0===y)x=v.span=[v.min,v.max],v.density=[{v:1,t:x[0]}],v.bandwidth=y,p=Math.max(p,1);else{var b=x[1]-x[0],_=Math.ceil(b/(y/3)),w=b/_;if(!isFinite(w)||!isFinite(_))return n.error(\\\"Something went wrong with computing the violin span\\\"),r[0].t.empty=!0,r;var k=o.makeKDE(v,e,m);v.density=new Array(_);for(var T=0,A=x[0];A<x[1]+w/2;T++,A+=w){var M=k(A);v.density[T]={v:M,t:A},p=Math.max(p,M)}}d=Math.max(d,m.length),f=Math.min(f,x[0]),h=Math.max(h,x[1])}var S=i.findExtremes(u,[f,h],{padded:!0});if(e._extremes[u._id]=S,e.width)r[0].t.maxKDE=p;else{var E=s._violinScaleGroupStats,C=e.scalegroup,L=E[C];L?(L.maxKDE=Math.max(L.maxKDE,p),L.maxCount=Math.max(L.maxCount,d)):E[C]={maxKDE:p,maxCount:d}}return r[0].t.labels.kde=n._(t,\\\"kde:\\\"),r}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"../box/calc\\\":865,\\\"./helpers\\\":1189}],1187:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../box/cross_trace_calc\\\").setPositionOffset,i=[\\\"v\\\",\\\"h\\\"];e.exports=function(t,e){for(var r=t.calcdata,a=e.xaxis,o=e.yaxis,s=0;s<i.length;s++){for(var l=i[s],c=\\\"h\\\"===l?o:a,u=[],f=0;f<r.length;f++){var h=r[f],p=h[0].t,d=h[0].trace;!0!==d.visible||\\\"violin\\\"!==d.type||p.empty||d.orientation!==l||d.xaxis!==a._id||d.yaxis!==o._id||u.push(f)}n(\\\"violin\\\",t,u,c)}}},{\\\"../box/cross_trace_calc\\\":866}],1188:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../components/color\\\"),a=t(\\\"../box/defaults\\\"),o=t(\\\"./attributes\\\");e.exports=function(t,e,r,s){function l(r,i){return n.coerce(t,e,o,r,i)}function c(r,i){return n.coerce2(t,e,o,r,i)}if(a.handleSampleDefaults(t,e,l,s),!1!==e.visible){l(\\\"bandwidth\\\"),l(\\\"side\\\"),l(\\\"width\\\")||(l(\\\"scalegroup\\\",e.name),l(\\\"scalemode\\\"));var u,f=l(\\\"span\\\");Array.isArray(f)&&(u=\\\"manual\\\"),l(\\\"spanmode\\\",u);var h=l(\\\"line.color\\\",(t.marker||{}).color||r),p=l(\\\"line.width\\\"),d=l(\\\"fillcolor\\\",i.addOpacity(e.line.color,.5));a.handlePointsDefaults(t,e,l,{prefix:\\\"\\\"});var g=c(\\\"box.width\\\"),v=c(\\\"box.fillcolor\\\",d),m=c(\\\"box.line.color\\\",h),y=c(\\\"box.line.width\\\",p);l(\\\"box.visible\\\",Boolean(g||v||m||y))||(e.box={visible:!1});var x=c(\\\"meanline.color\\\",h),b=c(\\\"meanline.width\\\",p);l(\\\"meanline.visible\\\",Boolean(x||b))||(e.meanline={visible:!1})}}},{\\\"../../components/color\\\":580,\\\"../../lib\\\":703,\\\"../box/defaults\\\":867,\\\"./attributes\\\":1185}],1189:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=function(t){return 1/Math.sqrt(2*Math.PI)*Math.exp(-.5*t*t)};r.makeKDE=function(t,e,r){var n=r.length,a=i,o=t.bandwidth,s=1/(n*o);return function(t){for(var e=0,i=0;i<n;i++)e+=a((t-r[i])/o);return s*e}},r.getPositionOnKdePath=function(t,e,r){var i,a;\\\"h\\\"===e.orientation?(i=\\\"y\\\",a=\\\"x\\\"):(i=\\\"x\\\",a=\\\"y\\\");var o=n.findPointOnPath(t.path,r,a,{pathLength:t.pathLength}),s=t.posCenterPx,l=o[i];return[l,\\\"both\\\"===e.side?2*s-l:s]},r.getKdeValue=function(t,e,n){var i=t.pts.map(r.extractVal);return r.makeKDE(t,e,i)(n)/t.posDensityScale},r.extractVal=function(t){return t.v}},{\\\"../../lib\\\":703}],1190:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../../plots/cartesian/axes\\\"),a=t(\\\"../box/hover\\\"),o=t(\\\"./helpers\\\");e.exports=function(t,e,r,s,l){var c,u,f=t.cd,h=f[0].trace,p=h.hoveron,d=-1!==p.indexOf(\\\"violins\\\"),g=-1!==p.indexOf(\\\"kde\\\"),v=[];if(d||g){var m=a.hoverOnBoxes(t,e,r,s);if(g&&m.length>0){var y,x,b,_,w,k=t.xa,T=t.ya;\\\"h\\\"===h.orientation?(w=e,y=\\\"y\\\",b=T,x=\\\"x\\\",_=k):(w=r,y=\\\"x\\\",b=k,x=\\\"y\\\",_=T);var A=f[t.index];if(w>=A.span[0]&&w<=A.span[1]){var M=n.extendFlat({},t),S=_.c2p(w,!0),E=o.getKdeValue(A,h,w),C=o.getPositionOnKdePath(A,h,S),L=b._offset,z=b._length;M[y+\\\"0\\\"]=C[0],M[y+\\\"1\\\"]=C[1],M[x+\\\"0\\\"]=M[x+\\\"1\\\"]=S,M[x+\\\"Label\\\"]=x+\\\": \\\"+i.hoverLabelText(_,w)+\\\", \\\"+f[0].t.labels.kde+\\\" \\\"+E.toFixed(3),M.spikeDistance=m[0].spikeDistance;var O=y+\\\"Spike\\\";M[O]=m[0][O],m[0].spikeDistance=void 0,m[0][O]=void 0,M.hovertemplate=!1,v.push(M),(u={stroke:t.color})[y+\\\"1\\\"]=n.constrain(L+C[0],L,L+z),u[y+\\\"2\\\"]=n.constrain(L+C[1],L,L+z),u[x+\\\"1\\\"]=u[x+\\\"2\\\"]=_._offset+S}}d&&(v=v.concat(m))}-1!==p.indexOf(\\\"points\\\")&&(c=a.hoverOnPoints(t,e,r));var I=l.selectAll(\\\".violinline-\\\"+h.uid).data(u?[0]:[]);return I.enter().append(\\\"line\\\").classed(\\\"violinline-\\\"+h.uid,!0).attr(\\\"stroke-width\\\",1.5),I.exit().remove(),I.attr(u),\\\"closest\\\"===s?c?[c]:v:c?(v.push(c),v):v}},{\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"../box/hover\\\":869,\\\"./helpers\\\":1189}],1191:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),layoutAttributes:t(\\\"./layout_attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),crossTraceDefaults:t(\\\"../box/defaults\\\").crossTraceDefaults,supplyLayoutDefaults:t(\\\"./layout_defaults\\\"),calc:t(\\\"./calc\\\"),crossTraceCalc:t(\\\"./cross_trace_calc\\\"),plot:t(\\\"./plot\\\"),style:t(\\\"./style\\\"),styleOnSelect:t(\\\"../scatter/style\\\").styleOnSelect,hoverPoints:t(\\\"./hover\\\"),selectPoints:t(\\\"../box/select\\\"),moduleType:\\\"trace\\\",name:\\\"violin\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"cartesian\\\",\\\"svg\\\",\\\"symbols\\\",\\\"oriented\\\",\\\"box-violin\\\",\\\"showLegend\\\",\\\"violinLayout\\\",\\\"zoomScale\\\"],meta:{}}},{\\\"../../plots/cartesian\\\":762,\\\"../box/defaults\\\":867,\\\"../box/select\\\":874,\\\"../scatter/style\\\":1097,\\\"./attributes\\\":1185,\\\"./calc\\\":1186,\\\"./cross_trace_calc\\\":1187,\\\"./defaults\\\":1188,\\\"./hover\\\":1190,\\\"./layout_attributes\\\":1192,\\\"./layout_defaults\\\":1193,\\\"./plot\\\":1194,\\\"./style\\\":1195}],1192:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../box/layout_attributes\\\"),i=t(\\\"../../lib\\\").extendFlat;e.exports={violinmode:i({},n.boxmode,{}),violingap:i({},n.boxgap,{}),violingroupgap:i({},n.boxgroupgap,{})}},{\\\"../../lib\\\":703,\\\"../box/layout_attributes\\\":871}],1193:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./layout_attributes\\\"),a=t(\\\"../box/layout_defaults\\\");e.exports=function(t,e,r){a._supply(t,e,r,function(r,a){return n.coerce(t,e,i,r,a)},\\\"violin\\\")}},{\\\"../../lib\\\":703,\\\"../box/layout_defaults\\\":872,\\\"./layout_attributes\\\":1192}],1194:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../components/drawing\\\"),o=t(\\\"../box/plot\\\"),s=t(\\\"../scatter/line_points\\\"),l=t(\\\"./helpers\\\");e.exports=function(t,e,r,c){var u=t._fullLayout,f=e.xaxis,h=e.yaxis;function p(t){var e=s(t,{xaxis:f,yaxis:h,connectGaps:!0,baseTolerance:.75,shape:\\\"spline\\\",simplify:!0});return a.smoothopen(e[0],1)}i.makeTraceGroups(c,r,\\\"trace violins\\\").each(function(t){var r=n.select(this),a=t[0],s=a.t,c=a.trace;if(e.isRangePlot||(a.node3=r),!0!==c.visible||s.empty)r.remove();else{var d=s.bPos,g=s.bdPos,v=e[s.valLetter+\\\"axis\\\"],m=e[s.posLetter+\\\"axis\\\"],y=\\\"both\\\"===c.side,x=y||\\\"positive\\\"===c.side,b=y||\\\"negative\\\"===c.side,_=r.selectAll(\\\"path.violin\\\").data(i.identity);_.enter().append(\\\"path\\\").style(\\\"vector-effect\\\",\\\"non-scaling-stroke\\\").attr(\\\"class\\\",\\\"violin\\\"),_.exit().remove(),_.each(function(t){var e,r,i,a,o,l,f,h,_=n.select(this),w=t.density,k=w.length,T=t.pos+d,A=m.c2p(T);if(c.width)e=s.maxKDE/g;else{var M=u._violinScaleGroupStats[c.scalegroup];e=\\\"count\\\"===c.scalemode?M.maxKDE/g*(M.maxCount/t.pts.length):M.maxKDE/g}if(x){for(f=new Array(k),o=0;o<k;o++)(h=f[o]={})[s.posLetter]=T+w[o].v/e,h[s.valLetter]=w[o].t;r=p(f)}if(b){for(f=new Array(k),l=0,o=k-1;l<k;l++,o--)(h=f[l]={})[s.posLetter]=T-w[o].v/e,h[s.valLetter]=w[o].t;i=p(f)}if(y)a=r+\\\"L\\\"+i.substr(1)+\\\"Z\\\";else{var S=[A,v.c2p(w[0].t)],E=[A,v.c2p(w[k-1].t)];\\\"h\\\"===c.orientation&&(S.reverse(),E.reverse()),a=x?\\\"M\\\"+S+\\\"L\\\"+r.substr(1)+\\\"L\\\"+E:\\\"M\\\"+E+\\\"L\\\"+i.substr(1)+\\\"L\\\"+S}_.attr(\\\"d\\\",a),t.posCenterPx=A,t.posDensityScale=e*g,t.path=_.node(),t.pathLength=t.path.getTotalLength()/(y?2:1)});var w,k,T,A=c.box,M=A.width,S=(A.line||{}).width;y?(w=g*M,k=0):x?(w=[0,g*M/2],k=-S):(w=[g*M/2,0],k=S),o.plotBoxAndWhiskers(r,{pos:m,val:v},c,{bPos:d,bdPos:w,bPosPxOffset:k}),o.plotBoxMean(r,{pos:m,val:v},c,{bPos:d,bdPos:w,bPosPxOffset:k}),!c.box.visible&&c.meanline.visible&&(T=i.identity);var E=r.selectAll(\\\"path.meanline\\\").data(T||[]);E.enter().append(\\\"path\\\").attr(\\\"class\\\",\\\"meanline\\\").style(\\\"fill\\\",\\\"none\\\").style(\\\"vector-effect\\\",\\\"non-scaling-stroke\\\"),E.exit().remove(),E.each(function(t){var e=v.c2p(t.mean,!0),r=l.getPositionOnKdePath(t,c,e);n.select(this).attr(\\\"d\\\",\\\"h\\\"===c.orientation?\\\"M\\\"+e+\\\",\\\"+r[0]+\\\"V\\\"+r[1]:\\\"M\\\"+r[0]+\\\",\\\"+e+\\\"H\\\"+r[1])}),o.plotPoints(r,{x:f,y:h},c,s)}})}},{\\\"../../components/drawing\\\":601,\\\"../../lib\\\":703,\\\"../box/plot\\\":873,\\\"../scatter/line_points\\\":1088,\\\"./helpers\\\":1189,d3:157}],1195:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../components/color\\\"),a=t(\\\"../scatter/style\\\").stylePoints;e.exports=function(t,e){var r=e?e[0].node3:n.select(t).selectAll(\\\"g.trace.violins\\\");r.style(\\\"opacity\\\",function(t){return t[0].trace.opacity}),r.each(function(e){var r=e[0].trace,o=n.select(this),s=r.box||{},l=s.line||{},c=r.meanline||{},u=c.width;o.selectAll(\\\"path.violin\\\").style(\\\"stroke-width\\\",r.line.width+\\\"px\\\").call(i.stroke,r.line.color).call(i.fill,r.fillcolor),o.selectAll(\\\"path.box\\\").style(\\\"stroke-width\\\",l.width+\\\"px\\\").call(i.stroke,l.color).call(i.fill,s.fillcolor);var f={\\\"stroke-width\\\":u+\\\"px\\\",\\\"stroke-dasharray\\\":2*u+\\\"px,\\\"+u+\\\"px\\\"};o.selectAll(\\\"path.mean\\\").style(f).call(i.stroke,c.color),o.selectAll(\\\"path.meanline\\\").style(f).call(i.stroke,c.color),a(o,r,t)})}},{\\\"../../components/color\\\":580,\\\"../scatter/style\\\":1097,d3:157}],1196:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../components/colorscale/attributes\\\"),i=t(\\\"../isosurface/attributes\\\"),a=t(\\\"../../plots/attributes\\\"),o=t(\\\"../../lib/extend\\\").extendFlat,s=t(\\\"../../plot_api/edit_types\\\").overrideAll,l=e.exports=s(o({x:i.x,y:i.y,z:i.z,value:i.value,isomin:i.isomin,isomax:i.isomax,surface:i.surface,spaceframe:{show:{valType:\\\"boolean\\\",dflt:!1},fill:{valType:\\\"number\\\",min:0,max:1,dflt:1}},slices:i.slices,caps:i.caps,text:i.text,hovertext:i.hovertext,hovertemplate:i.hovertemplate},n(\\\"\\\",{colorAttr:\\\"`value`\\\",showScaleDflt:!0,editTypeOverride:\\\"calc\\\"}),{colorbar:i.colorbar,opacity:i.opacity,opacityscale:{valType:\\\"any\\\",editType:\\\"calc\\\"},lightposition:i.lightposition,lighting:i.lighting,flatshading:i.flatshading,contour:i.contour,hoverinfo:o({},a.hoverinfo)}),\\\"calc\\\",\\\"nested\\\");l.x.editType=l.y.editType=l.z.editType=l.value.editType=\\\"calc+clearAxisTypes\\\",l.transforms=void 0},{\\\"../../components/colorscale/attributes\\\":587,\\\"../../lib/extend\\\":693,\\\"../../plot_api/edit_types\\\":734,\\\"../../plots/attributes\\\":748,\\\"../isosurface/attributes\\\":1012}],1197:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"gl-mesh3d\\\"),i=t(\\\"../../lib/gl_format_color\\\").parseColorScale,a=t(\\\"../../lib/str2rgbarray\\\"),o=t(\\\"../../components/colorscale\\\").extractOpts,s=t(\\\"../../plots/gl3d/zip3\\\"),l=t(\\\"../isosurface/convert\\\").findNearestOnAxis,c=t(\\\"../isosurface/convert\\\").generateIsoMeshes;function u(t,e,r){this.scene=t,this.uid=r,this.mesh=e,this.name=\\\"\\\",this.data=null,this.showContour=!1}var f=u.prototype;f.handlePick=function(t){if(t.object===this.mesh){var e=t.data.index,r=this.data._x[e],n=this.data._y[e],i=this.data._z[e],a=this.data._Ys.length,o=this.data._Zs.length,s=l(r,this.data._Xs).id,c=l(n,this.data._Ys).id,u=l(i,this.data._Zs).id,f=t.index=u+o*c+o*a*s;t.traceCoordinate=[this.data._x[f],this.data._y[f],this.data._z[f],this.data.value[f]];var h=this.data.hovertext||this.data.text;return Array.isArray(h)&&void 0!==h[f]?t.textLabel=h[f]:h&&(t.textLabel=h),!0}},f.update=function(t){var e=this.scene,r=e.fullSceneLayout;function n(t,e,r,n){return e.map(function(e){return t.d2l(e,0,n)*r})}this.data=c(t);var l={positions:s(n(r.xaxis,t._x,e.dataScale[0],t.xcalendar),n(r.yaxis,t._y,e.dataScale[1],t.ycalendar),n(r.zaxis,t._z,e.dataScale[2],t.zcalendar)),cells:s(t._i,t._j,t._k),lightPosition:[t.lightposition.x,t.lightposition.y,t.lightposition.z],ambient:t.lighting.ambient,diffuse:t.lighting.diffuse,specular:t.lighting.specular,roughness:t.lighting.roughness,fresnel:t.lighting.fresnel,vertexNormalsEpsilon:t.lighting.vertexnormalsepsilon,faceNormalsEpsilon:t.lighting.facenormalsepsilon,opacity:t.opacity,opacityscale:t.opacityscale,contourEnable:t.contour.show,contourColor:a(t.contour.color).slice(0,3),contourWidth:t.contour.width,useFacetNormals:t.flatshading},u=o(t);l.vertexIntensity=t._intensity,l.vertexIntensityBounds=[u.min,u.max],l.colormap=i(t),this.mesh.update(l)},f.dispose=function(){this.scene.glplot.remove(this.mesh),this.mesh.dispose()},e.exports=function(t,e){var r=t.glplot.gl,i=n({gl:r}),a=new u(t,i,e.uid);return i._trace=a,a.update(e),t.glplot.add(i),a}},{\\\"../../components/colorscale\\\":592,\\\"../../lib/gl_format_color\\\":700,\\\"../../lib/str2rgbarray\\\":726,\\\"../../plots/gl3d/zip3\\\":802,\\\"../isosurface/convert\\\":1014,\\\"gl-mesh3d\\\":279}],1198:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./attributes\\\"),a=t(\\\"../isosurface/defaults\\\").supplyIsoDefaults;e.exports=function(t,e,r,o){function s(r,a){return n.coerce(t,e,i,r,a)}a(t,e,r,o,s);var l=s(\\\"opacityscale\\\");\\\"max\\\"===l?e.opacityscale=[[0,.1],[1,1]]:\\\"min\\\"===l?e.opacityscale=[[0,1],[1,.1]]:\\\"extremes\\\"===l?e.opacityscale=function(t,e){for(var r=[],n=0;n<32;n++){var i=n/31,a=e+(1-e)*(1-Math.pow(Math.sin(t*i*Math.PI),2));r.push([i,Math.max(1,Math.min(0,a))])}return r}(1,.1):function(t){var e=0;if(!Array.isArray(t)||t.length<2)return!1;if(!t[0]||!t[t.length-1])return!1;if(0!=+t[0][0]||1!=+t[t.length-1][0])return!1;for(var r=0;r<t.length;r++){var n=t[r];if(2!==n.length||+n[0]<e)return!1;e=+n[0]}return!0}(l)||(e.opacityscale=void 0)}},{\\\"../../lib\\\":703,\\\"../isosurface/defaults\\\":1015,\\\"./attributes\\\":1196}],1199:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),supplyDefaults:t(\\\"./defaults\\\"),calc:t(\\\"../isosurface/calc\\\"),colorbar:{min:\\\"cmin\\\",max:\\\"cmax\\\"},plot:t(\\\"./convert\\\"),moduleType:\\\"trace\\\",name:\\\"volume\\\",basePlotModule:t(\\\"../../plots/gl3d\\\"),categories:[\\\"gl3d\\\"],meta:{}}},{\\\"../../plots/gl3d\\\":791,\\\"../isosurface/calc\\\":1013,\\\"./attributes\\\":1196,\\\"./convert\\\":1197,\\\"./defaults\\\":1198}],1200:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../bar/attributes\\\"),i=t(\\\"../scatter/attributes\\\").line,a=t(\\\"../../lib/extend\\\").extendFlat,o=t(\\\"../../components/color\\\");function s(t){return{marker:{color:a({},n.marker.color,{arrayOk:!1,editType:\\\"style\\\"}),line:{color:a({},n.marker.line.color,{arrayOk:!1,editType:\\\"style\\\"}),width:a({},n.marker.line.width,{arrayOk:!1,editType:\\\"style\\\"}),editType:\\\"style\\\"},editType:\\\"style\\\"},editType:\\\"style\\\"}}e.exports={measure:{valType:\\\"data_array\\\",dflt:[],editType:\\\"calc\\\"},base:{valType:\\\"number\\\",dflt:null,arrayOk:!1,editType:\\\"calc\\\"},x:n.x,x0:n.x0,dx:n.dx,y:n.y,y0:n.y0,dy:n.dy,hovertext:n.hovertext,hovertemplate:n.hovertemplate,textinfo:{valType:\\\"flaglist\\\",flags:[\\\"label\\\",\\\"text\\\",\\\"initial\\\",\\\"delta\\\",\\\"final\\\"],extras:[\\\"none\\\"],editType:\\\"plot\\\",arrayOk:!1},text:n.text,textposition:n.textposition,insidetextanchor:n.insidetextanchor,textangle:n.textangle,textfont:n.textfont,insidetextfont:n.insidetextfont,outsidetextfont:n.outsidetextfont,constraintext:n.constraintext,cliponaxis:n.cliponaxis,orientation:n.orientation,offset:n.offset,width:n.width,increasing:s(),decreasing:s(),totals:s(),connector:{line:{color:a({},i.color,{dflt:o.defaultLine}),width:a({},i.width,{editType:\\\"plot\\\"}),dash:i.dash,editType:\\\"plot\\\"},mode:{valType:\\\"enumerated\\\",values:[\\\"spanning\\\",\\\"between\\\"],dflt:\\\"between\\\",editType:\\\"plot\\\"},visible:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"plot\\\"},editType:\\\"plot\\\"},offsetgroup:n.offsetgroup,alignmentgroup:n.alignmentgroup}},{\\\"../../components/color\\\":580,\\\"../../lib/extend\\\":693,\\\"../bar/attributes\\\":841,\\\"../scatter/attributes\\\":1075}],1201:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/axes\\\"),i=t(\\\"../../lib\\\").mergeArray,a=t(\\\"../scatter/calc_selection\\\"),o=t(\\\"../../constants/numerical\\\").BADNUM;function s(t){return\\\"a\\\"===t||\\\"absolute\\\"===t}function l(t){return\\\"t\\\"===t||\\\"total\\\"===t}e.exports=function(t,e){var r,c,u=n.getFromId(t,e.xaxis||\\\"x\\\"),f=n.getFromId(t,e.yaxis||\\\"y\\\");\\\"h\\\"===e.orientation?(r=u.makeCalcdata(e,\\\"x\\\"),c=f.makeCalcdata(e,\\\"y\\\")):(r=f.makeCalcdata(e,\\\"y\\\"),c=u.makeCalcdata(e,\\\"x\\\"));for(var h,p=Math.min(c.length,r.length),d=new Array(p),g=0,v=!1,m=0;m<p;m++){var y=r[m]||0,x=!1;(r[m]!==o||l(e.measure[m])||s(e.measure[m]))&&m+1<p&&(r[m+1]!==o||l(e.measure[m+1])||s(e.measure[m+1]))&&(x=!0);var b=d[m]={i:m,p:c[m],s:y,rawS:y,cNext:x};s(e.measure[m])?(g=b.s,b.isSum=!0,b.dir=\\\"totals\\\",b.s=g):l(e.measure[m])?(b.isSum=!0,b.dir=\\\"totals\\\",b.s=g):(b.isSum=!1,b.dir=b.rawS<0?\\\"decreasing\\\":\\\"increasing\\\",h=b.s,b.s=g+h,g+=h),\\\"totals\\\"===b.dir&&(v=!0),e.ids&&(b.id=String(e.ids[m])),b.v=(e.base||0)+g}return d.length&&(d[0].hasTotals=v),i(e.text,d,\\\"tx\\\"),i(e.hovertext,d,\\\"htx\\\"),a(d,e),d}},{\\\"../../constants/numerical\\\":680,\\\"../../lib\\\":703,\\\"../../plots/cartesian/axes\\\":751,\\\"../scatter/calc_selection\\\":1077}],1202:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../bar/cross_trace_calc\\\").setGroupPositions;e.exports=function(t,e){var r,i,a=t._fullLayout,o=t._fullData,s=t.calcdata,l=e.xaxis,c=e.yaxis,u=[],f=[],h=[];for(i=0;i<o.length;i++){var p=o[i];!0===p.visible&&p.xaxis===l._id&&p.yaxis===c._id&&\\\"waterfall\\\"===p.type&&(r=s[i],\\\"h\\\"===p.orientation?h.push(r):f.push(r),u.push(r))}var d={mode:a.waterfallmode,norm:a.waterfallnorm,gap:a.waterfallgap,groupgap:a.waterfallgroupgap};for(n(t,l,c,f,d),n(t,c,l,h,d),i=0;i<u.length;i++){r=u[i];for(var g=0;g<r.length;g++){var v=r[g];!1===v.isSum&&(v.s0+=0===g?0:r[g-1].s),g+1<r.length&&(r[g].nextP0=r[g+1].p0,r[g].nextS0=r[g+1].s0)}}}},{\\\"../bar/cross_trace_calc\\\":844}],1203:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"../bar/defaults\\\").handleGroupingDefaults,a=t(\\\"../bar/defaults\\\").handleText,o=t(\\\"../scatter/xy_defaults\\\"),s=t(\\\"./attributes\\\"),l=t(\\\"../../components/color\\\"),c=\\\"#3D9970\\\",u=\\\"#FF4136\\\",f=\\\"#4499FF\\\";function h(t,e,r){t(e+\\\".marker.color\\\",r),t(e+\\\".marker.line.color\\\",l.defaultLine),t(e+\\\".marker.line.width\\\")}e.exports={supplyDefaults:function(t,e,r,i){function l(r,i){return n.coerce(t,e,s,r,i)}if(o(t,e,i,l)){l(\\\"measure\\\"),l(\\\"orientation\\\",e.x&&!e.y?\\\"h\\\":\\\"v\\\"),l(\\\"base\\\"),l(\\\"offset\\\"),l(\\\"width\\\"),l(\\\"text\\\"),l(\\\"hovertext\\\"),l(\\\"hovertemplate\\\");var p=l(\\\"textposition\\\");a(t,e,i,l,p,{moduleHasSelected:!1,moduleHasUnselected:!1,moduleHasConstrain:!0,moduleHasCliponaxis:!0,moduleHasTextangle:!0,moduleHasInsideanchor:!0}),\\\"none\\\"!==e.textposition&&l(\\\"textinfo\\\"),h(l,\\\"increasing\\\",c),h(l,\\\"decreasing\\\",u),h(l,\\\"totals\\\",f),l(\\\"connector.visible\\\")&&(l(\\\"connector.mode\\\"),l(\\\"connector.line.width\\\")&&(l(\\\"connector.line.color\\\"),l(\\\"connector.line.dash\\\")))}else e.visible=!1},crossTraceDefaults:function(t,e){var r,a;function o(t){return n.coerce(a._input,a,s,t)}if(\\\"group\\\"===e.waterfallmode)for(var l=0;l<t.length;l++)r=(a=t[l])._input,i(r,a,e,o)}}},{\\\"../../components/color\\\":580,\\\"../../lib\\\":703,\\\"../bar/defaults\\\":845,\\\"../scatter/xy_defaults\\\":1100,\\\"./attributes\\\":1200}],1204:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../plots/cartesian/axes\\\").hoverLabelText,i=t(\\\"../../components/color\\\").opacity,a=t(\\\"../bar/hover\\\").hoverOnBars,o=\\\"\\\\u25b2\\\",s=\\\"\\\\u25bc\\\";e.exports=function(t,e,r,l){var c=a(t,e,r,l);if(c){var u=c.cd,f=u[0].trace,h=\\\"h\\\"===f.orientation?t.xa:t.ya,p=u[c.index],d=p.isSum?p.b+p.s:p.rawS;if(!p.isSum){if(d>0)c.extraText=g(d)+\\\" \\\"+o;else{if(!(d<0))return;c.extraText=\\\"(\\\"+g(-d)+\\\") \\\"+s}c.extraText+=\\\"<br>Initial: \\\"+g(p.b+p.s-d)}return c.color=function(t,e){var r=t[e.dir].marker,n=r.color,a=r.line.color,o=r.line.width;if(i(n))return n;if(i(a)&&o)return a}(f,p),[c]}function g(t){return n(h,t)}}},{\\\"../../components/color\\\":580,\\\"../../plots/cartesian/axes\\\":751,\\\"../bar/hover\\\":847}],1205:[function(t,e,r){\\\"use strict\\\";e.exports={attributes:t(\\\"./attributes\\\"),layoutAttributes:t(\\\"./layout_attributes\\\"),supplyDefaults:t(\\\"./defaults\\\").supplyDefaults,crossTraceDefaults:t(\\\"./defaults\\\").crossTraceDefaults,supplyLayoutDefaults:t(\\\"./layout_defaults\\\"),calc:t(\\\"./calc\\\"),crossTraceCalc:t(\\\"./cross_trace_calc\\\"),plot:t(\\\"./plot\\\"),style:t(\\\"./style\\\").style,hoverPoints:t(\\\"./hover\\\"),selectPoints:t(\\\"../bar/select\\\"),moduleType:\\\"trace\\\",name:\\\"waterfall\\\",basePlotModule:t(\\\"../../plots/cartesian\\\"),categories:[\\\"bar-like\\\",\\\"cartesian\\\",\\\"svg\\\",\\\"oriented\\\",\\\"showLegend\\\",\\\"zoomScale\\\"],meta:{}}},{\\\"../../plots/cartesian\\\":762,\\\"../bar/select\\\":852,\\\"./attributes\\\":1200,\\\"./calc\\\":1201,\\\"./cross_trace_calc\\\":1202,\\\"./defaults\\\":1203,\\\"./hover\\\":1204,\\\"./layout_attributes\\\":1206,\\\"./layout_defaults\\\":1207,\\\"./plot\\\":1208,\\\"./style\\\":1209}],1206:[function(t,e,r){\\\"use strict\\\";e.exports={waterfallmode:{valType:\\\"enumerated\\\",values:[\\\"group\\\",\\\"overlay\\\"],dflt:\\\"group\\\",editType:\\\"calc\\\"},waterfallgap:{valType:\\\"number\\\",min:0,max:1,editType:\\\"calc\\\"},waterfallgroupgap:{valType:\\\"number\\\",min:0,max:1,dflt:0,editType:\\\"calc\\\"}}},{}],1207:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../../lib\\\"),i=t(\\\"./layout_attributes\\\");e.exports=function(t,e,r){var a=!1;function o(r,a){return n.coerce(t,e,i,r,a)}for(var s=0;s<r.length;s++){var l=r[s];if(l.visible&&\\\"waterfall\\\"===l.type){a=!0;break}}a&&(o(\\\"waterfallmode\\\"),o(\\\"waterfallgap\\\",.2),o(\\\"waterfallgroupgap\\\"))}},{\\\"../../lib\\\":703,\\\"./layout_attributes\\\":1206}],1208:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../lib\\\"),a=t(\\\"../../components/drawing\\\"),o=t(\\\"../bar/plot\\\").plot;e.exports=function(t,e,r,s){var l=t._fullLayout;o(t,e,r,s,{mode:l.waterfallmode,norm:l.waterfallmode,gap:l.waterfallgap,groupgap:l.waterfallgroupgap}),function(t,e,r,o){var s=e.xaxis,l=e.yaxis;i.makeTraceGroups(o,r,\\\"trace bars\\\").each(function(r){var o=n.select(this),c=r[0].trace,u=i.ensureSingle(o,\\\"g\\\",\\\"lines\\\");if(c.connector&&c.connector.visible){var f=\\\"h\\\"===c.orientation,h=c.connector.mode,p=u.selectAll(\\\"g.line\\\").data(i.identity);p.enter().append(\\\"g\\\").classed(\\\"line\\\",!0),p.exit().remove();var d=p.size();p.each(function(r,o){if(o===d-1||r.cNext){var c=function(t,e,r,n){var i=[],a=[],o=n?e:r,s=n?r:e;return i[0]=o.c2p(t.s0,!0),a[0]=s.c2p(t.p0,!0),i[1]=o.c2p(t.s1,!0),a[1]=s.c2p(t.p1,!0),i[2]=o.c2p(t.nextS0,!0),a[2]=s.c2p(t.nextP0,!0),n?[i,a]:[a,i]}(r,s,l,f),u=c[0],p=c[1],g=\\\"\\\";\\\"spanning\\\"===h&&!r.isSum&&o>0&&(g+=f?\\\"M\\\"+u[0]+\\\",\\\"+p[1]+\\\"V\\\"+p[0]:\\\"M\\\"+u[1]+\\\",\\\"+p[0]+\\\"H\\\"+u[0]),\\\"between\\\"!==h&&(r.isSum||o<d-1)&&(g+=f?\\\"M\\\"+u[1]+\\\",\\\"+p[0]+\\\"V\\\"+p[1]:\\\"M\\\"+u[0]+\\\",\\\"+p[1]+\\\"H\\\"+u[1]),void 0!==u[2]&&void 0!==p[2]&&(g+=f?\\\"M\\\"+u[1]+\\\",\\\"+p[1]+\\\"V\\\"+p[2]:\\\"M\\\"+u[1]+\\\",\\\"+p[1]+\\\"H\\\"+u[2]),\\\"\\\"===g&&(g=\\\"M0,0Z\\\"),i.ensureSingle(n.select(this),\\\"path\\\").attr(\\\"d\\\",g).call(a.setClipUrl,e.layerClipId,t)}})}else u.remove()})}(t,e,r,s)}},{\\\"../../components/drawing\\\":601,\\\"../../lib\\\":703,\\\"../bar/plot\\\":851,d3:157}],1209:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"d3\\\"),i=t(\\\"../../components/drawing\\\"),a=t(\\\"../../components/color\\\"),o=t(\\\"../bar/style\\\").styleTextPoints;e.exports={style:function(t,e){var r=e?e[0].node3:n.select(t).selectAll(\\\"g.waterfalllayer\\\").selectAll(\\\"g.trace\\\");r.style(\\\"opacity\\\",function(t){return t[0].trace.opacity}),r.each(function(e){var r=n.select(this),s=e[0].trace;r.selectAll(\\\".point > path\\\").each(function(t){if(!t.isBlank){var e=s[t.dir].marker;n.select(this).call(a.fill,e.color).call(a.stroke,e.line.color).call(i.dashLine,e.line.dash,e.line.width).style(\\\"opacity\\\",s.selectedpoints&&!t.selected?.3:1)}}),o(r,s,t),r.selectAll(\\\".lines\\\").each(function(){var t=s.connector.line;i.lineGroupStyle(n.select(this).selectAll(\\\"path\\\"),t.width,t.color,t.dash)})})}}},{\\\"../../components/color\\\":580,\\\"../../components/drawing\\\":601,\\\"../bar/style\\\":854,d3:157}],1210:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../plots/cartesian/axes\\\"),i=t(\\\"../lib\\\"),a=t(\\\"../plot_api/plot_schema\\\"),o=t(\\\"./helpers\\\").pointsAccessorFunction,s=t(\\\"../constants/numerical\\\").BADNUM;r.moduleType=\\\"transform\\\",r.name=\\\"aggregate\\\";var l=r.attributes={enabled:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"},groups:{valType:\\\"string\\\",strict:!0,noBlank:!0,arrayOk:!0,dflt:\\\"x\\\",editType:\\\"calc\\\"},aggregations:{_isLinkedToArray:\\\"aggregation\\\",target:{valType:\\\"string\\\",editType:\\\"calc\\\"},func:{valType:\\\"enumerated\\\",values:[\\\"count\\\",\\\"sum\\\",\\\"avg\\\",\\\"median\\\",\\\"mode\\\",\\\"rms\\\",\\\"stddev\\\",\\\"min\\\",\\\"max\\\",\\\"first\\\",\\\"last\\\",\\\"change\\\",\\\"range\\\"],dflt:\\\"first\\\",editType:\\\"calc\\\"},funcmode:{valType:\\\"enumerated\\\",values:[\\\"sample\\\",\\\"population\\\"],dflt:\\\"sample\\\",editType:\\\"calc\\\"},enabled:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"},editType:\\\"calc\\\"},editType:\\\"calc\\\"},c=l.aggregations;function u(t,e,r,a){if(a.enabled){for(var o=a.target,l=i.nestedProperty(e,o),c=l.get(),u=function(t,e){var r=t.func,n=e.d2c,i=e.c2d;switch(r){case\\\"count\\\":return f;case\\\"first\\\":return h;case\\\"last\\\":return p;case\\\"sum\\\":return function(t,e){for(var r=0,a=0;a<e.length;a++){var o=n(t[e[a]]);o!==s&&(r+=o)}return i(r)};case\\\"avg\\\":return function(t,e){for(var r=0,a=0,o=0;o<e.length;o++){var l=n(t[e[o]]);l!==s&&(r+=l,a++)}return a?i(r/a):s};case\\\"min\\\":return function(t,e){for(var r=1/0,a=0;a<e.length;a++){var o=n(t[e[a]]);o!==s&&(r=Math.min(r,o))}return r===1/0?s:i(r)};case\\\"max\\\":return function(t,e){for(var r=-1/0,a=0;a<e.length;a++){var o=n(t[e[a]]);o!==s&&(r=Math.max(r,o))}return r===-1/0?s:i(r)};case\\\"range\\\":return function(t,e){for(var r=1/0,a=-1/0,o=0;o<e.length;o++){var l=n(t[e[o]]);l!==s&&(r=Math.min(r,l),a=Math.max(a,l))}return a===-1/0||r===1/0?s:i(a-r)};case\\\"change\\\":return function(t,e){var r=n(t[e[0]]),a=n(t[e[e.length-1]]);return r===s||a===s?s:i(a-r)};case\\\"median\\\":return function(t,e){for(var r=[],a=0;a<e.length;a++){var o=n(t[e[a]]);o!==s&&r.push(o)}if(!r.length)return s;r.sort();var l=(r.length-1)/2;return i((r[Math.floor(l)]+r[Math.ceil(l)])/2)};case\\\"mode\\\":return function(t,e){for(var r={},a=0,o=s,l=0;l<e.length;l++){var c=n(t[e[l]]);if(c!==s){var u=r[c]=(r[c]||0)+1;u>a&&(a=u,o=c)}}return a?i(o):s};case\\\"rms\\\":return function(t,e){for(var r=0,a=0,o=0;o<e.length;o++){var l=n(t[e[o]]);l!==s&&(r+=l*l,a++)}return a?i(Math.sqrt(r/a)):s};case\\\"stddev\\\":return function(e,r){var i,a=0,o=0,l=1,c=s;for(i=0;i<r.length&&c===s;i++)c=n(e[r[i]]);if(c===s)return s;for(;i<r.length;i++){var u=n(e[r[i]]);if(u!==s){var f=u-c;a+=f,o+=f*f,l++}}var h=\\\"sample\\\"===t.funcmode?l-1:l;return h?Math.sqrt((o-a*a/l)/h):0}}}(a,n.getDataConversions(t,e,o,c)),d=new Array(r.length),g=0;g<r.length;g++)d[g]=u(c,r[g]);l.set(d),\\\"count\\\"===a.func&&i.pushUnique(e._arrayAttrs,o)}}function f(t,e){return e.length}function h(t,e){return t[e[0]]}function p(t,e){return t[e[e.length-1]]}r.supplyDefaults=function(t,e){var r,n={};function o(e,r){return i.coerce(t,n,l,e,r)}if(!o(\\\"enabled\\\"))return n;var s=a.findArrayAttributes(e),u={};for(r=0;r<s.length;r++)u[s[r]]=1;var f=o(\\\"groups\\\");if(!Array.isArray(f)){if(!u[f])return n.enabled=!1,n;u[f]=0}var h,p=t.aggregations||[],d=n.aggregations=new Array(p.length);function g(t,e){return i.coerce(p[r],h,c,t,e)}for(r=0;r<p.length;r++){h={_index:r};var v=g(\\\"target\\\"),m=g(\\\"func\\\");g(\\\"enabled\\\")&&v&&(u[v]||\\\"count\\\"===m&&void 0===u[v])?(\\\"stddev\\\"===m&&g(\\\"funcmode\\\"),u[v]=0,d[r]=h):d[r]={enabled:!1,_index:r}}for(r=0;r<s.length;r++)u[s[r]]&&d.push({target:s[r],func:c.func.dflt,enabled:!0,_index:-1});return n},r.calcTransform=function(t,e,r){if(r.enabled){var n=r.groups,a=i.getTargetArray(e,{target:n});if(a){var s,l,c,f,h={},p={},d=[],g=o(e.transforms,r),v=a.length;for(e._length&&(v=Math.min(v,e._length)),s=0;s<v;s++)void 0===(c=h[l=a[s]])?(h[l]=d.length,f=[s],d.push(f),p[h[l]]=g(s)):(d[c].push(s),p[h[l]]=(p[h[l]]||[]).concat(g(s)));r._indexToPoints=p;var m=r.aggregations;for(s=0;s<m.length;s++)u(t,e,d,m[s]);\\\"string\\\"==typeof n&&u(t,e,d,{target:n,func:\\\"first\\\",enabled:!0}),e._length=d.length}}}},{\\\"../constants/numerical\\\":680,\\\"../lib\\\":703,\\\"../plot_api/plot_schema\\\":740,\\\"../plots/cartesian/axes\\\":751,\\\"./helpers\\\":1213}],1211:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../lib\\\"),i=t(\\\"../registry\\\"),a=t(\\\"../plots/cartesian/axes\\\"),o=t(\\\"./helpers\\\").pointsAccessorFunction,s=t(\\\"../constants/filter_ops\\\"),l=s.COMPARISON_OPS,c=s.INTERVAL_OPS,u=s.SET_OPS;r.moduleType=\\\"transform\\\",r.name=\\\"filter\\\",r.attributes={enabled:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"},target:{valType:\\\"string\\\",strict:!0,noBlank:!0,arrayOk:!0,dflt:\\\"x\\\",editType:\\\"calc\\\"},operation:{valType:\\\"enumerated\\\",values:[].concat(l).concat(c).concat(u),dflt:\\\"=\\\",editType:\\\"calc\\\"},value:{valType:\\\"any\\\",dflt:0,editType:\\\"calc\\\"},preservegaps:{valType:\\\"boolean\\\",dflt:!1,editType:\\\"calc\\\"},editType:\\\"calc\\\"},r.supplyDefaults=function(t){var e={};function a(i,a){return n.coerce(t,e,r.attributes,i,a)}if(a(\\\"enabled\\\")){var o=a(\\\"target\\\");if(n.isArrayOrTypedArray(o)&&0===o.length)return e.enabled=!1,e;a(\\\"preservegaps\\\"),a(\\\"operation\\\"),a(\\\"value\\\");var s=i.getComponentMethod(\\\"calendars\\\",\\\"handleDefaults\\\");s(t,e,\\\"valuecalendar\\\",null),s(t,e,\\\"targetcalendar\\\",null)}return e},r.calcTransform=function(t,e,r){if(r.enabled){var i=n.getTargetArray(e,r);if(i){var s=r.target,f=i.length;e._length&&(f=Math.min(f,e._length));var h=r.targetcalendar,p=e._arrayAttrs,d=r.preservegaps;if(\\\"string\\\"==typeof s){var g=n.nestedProperty(e,s+\\\"calendar\\\").get();g&&(h=g)}var v,m,y=function(t,e,r){var n=t.operation,i=t.value,a=Array.isArray(i);function o(t){return-1!==t.indexOf(n)}var s,f=function(r){return e(r,0,t.valuecalendar)},h=function(t){return e(t,0,r)};o(l)?s=f(a?i[0]:i):o(c)?s=a?[f(i[0]),f(i[1])]:[f(i),f(i)]:o(u)&&(s=a?i.map(f):[f(i)]);switch(n){case\\\"=\\\":return function(t){return h(t)===s};case\\\"!=\\\":return function(t){return h(t)!==s};case\\\"<\\\":return function(t){return h(t)<s};case\\\"<=\\\":return function(t){return h(t)<=s};case\\\">\\\":return function(t){return h(t)>s};case\\\">=\\\":return function(t){return h(t)>=s};case\\\"[]\\\":return function(t){var e=h(t);return e>=s[0]&&e<=s[1]};case\\\"()\\\":return function(t){var e=h(t);return e>s[0]&&e<s[1]};case\\\"[)\\\":return function(t){var e=h(t);return e>=s[0]&&e<s[1]};case\\\"(]\\\":return function(t){var e=h(t);return e>s[0]&&e<=s[1]};case\\\"][\\\":return function(t){var e=h(t);return e<=s[0]||e>=s[1]};case\\\")(\\\":return function(t){var e=h(t);return e<s[0]||e>s[1]};case\\\"](\\\":return function(t){var e=h(t);return e<=s[0]||e>s[1]};case\\\")[\\\":return function(t){var e=h(t);return e<s[0]||e>=s[1]};case\\\"{}\\\":return function(t){return-1!==s.indexOf(h(t))};case\\\"}{\\\":return function(t){return-1===s.indexOf(h(t))}}}(r,a.getDataToCoordFunc(t,e,s,i),h),x={},b={},_=0;d?(v=function(t){x[t.astr]=n.extendDeep([],t.get()),t.set(new Array(f))},m=function(t,e){var r=x[t.astr][e];t.get()[e]=r}):(v=function(t){x[t.astr]=n.extendDeep([],t.get()),t.set([])},m=function(t,e){var r=x[t.astr][e];t.get().push(r)}),T(v);for(var w=o(e.transforms,r),k=0;k<f;k++){y(i[k])?(T(m,k),b[_++]=w(k)):d&&_++}r._indexToPoints=b,e._length=_}}function T(t,r){for(var i=0;i<p.length;i++){t(n.nestedProperty(e,p[i]),r)}}}},{\\\"../constants/filter_ops\\\":676,\\\"../lib\\\":703,\\\"../plots/cartesian/axes\\\":751,\\\"../registry\\\":831,\\\"./helpers\\\":1213}],1212:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../lib\\\"),i=t(\\\"../plot_api/plot_schema\\\"),a=t(\\\"../plots/plots\\\"),o=t(\\\"./helpers\\\").pointsAccessorFunction;function s(t,e){var r,s,l,c,u,f,h,p,d,g,v=e.transform,m=e.transformIndex,y=t.transforms[m].groups,x=o(t.transforms,v);if(!Array.isArray(y)||0===y.length)return[t];var b=n.filterUnique(y),_=new Array(b.length),w=y.length,k=i.findArrayAttributes(t),T=v.styles||[],A={};for(r=0;r<T.length;r++)A[T[r].target]=T[r].value;v.styles&&(g=n.keyedContainer(v,\\\"styles\\\",\\\"target\\\",\\\"value.name\\\"));var M={},S={};for(r=0;r<b.length;r++){M[f=b[r]]=r,S[f]=0,(h=_[r]=n.extendDeepNoArrays({},t))._group=f,h.transforms[m]._indexToPoints={};var E=null;for(g&&(E=g.get(f)),h.name=E||\\\"\\\"===E?E:n.templateString(v.nameformat,{trace:t.name,group:f}),p=h.transforms,h.transforms=[],s=0;s<p.length;s++)h.transforms[s]=n.extendDeepNoArrays({},p[s]);for(s=0;s<k.length;s++)n.nestedProperty(h,k[s]).set([])}for(l=0;l<k.length;l++){for(c=k[l],s=0,d=[];s<b.length;s++)d[s]=n.nestedProperty(_[s],c).get();for(u=n.nestedProperty(t,c).get(),s=0;s<w;s++)d[M[y[s]]].push(u[s])}for(s=0;s<w;s++){(h=_[M[y[s]]]).transforms[m]._indexToPoints[S[y[s]]]=x(s),S[y[s]]++}for(r=0;r<b.length;r++)f=b[r],h=_[r],a.clearExpandedTraceDefaultColors(h),h=n.extendDeepNoArrays(h,A[f]||{});return _}r.moduleType=\\\"transform\\\",r.name=\\\"groupby\\\",r.attributes={enabled:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"},groups:{valType:\\\"data_array\\\",dflt:[],editType:\\\"calc\\\"},nameformat:{valType:\\\"string\\\",editType:\\\"calc\\\"},styles:{_isLinkedToArray:\\\"style\\\",target:{valType:\\\"string\\\",editType:\\\"calc\\\"},value:{valType:\\\"any\\\",dflt:{},editType:\\\"calc\\\",_compareAsJSON:!0},editType:\\\"calc\\\"},editType:\\\"calc\\\"},r.supplyDefaults=function(t,e,i){var a,o={};function s(e,i){return n.coerce(t,o,r.attributes,e,i)}if(!s(\\\"enabled\\\"))return o;s(\\\"groups\\\"),s(\\\"nameformat\\\",i._dataLength>1?\\\"%{group} (%{trace})\\\":\\\"%{group}\\\");var l=t.styles,c=o.styles=[];if(l)for(a=0;a<l.length;a++){var u=c[a]={};n.coerce(l[a],c[a],r.attributes.styles,\\\"target\\\");var f=n.coerce(l[a],c[a],r.attributes.styles,\\\"value\\\");n.isPlainObject(f)?u.value=n.extendDeep({},f):f&&delete u.value}return o},r.transform=function(t,e){var r,n,i,a=[];for(n=0;n<t.length;n++)for(r=s(t[n],e),i=0;i<r.length;i++)a.push(r[i]);return a}},{\\\"../lib\\\":703,\\\"../plot_api/plot_schema\\\":740,\\\"../plots/plots\\\":812,\\\"./helpers\\\":1213}],1213:[function(t,e,r){\\\"use strict\\\";r.pointsAccessorFunction=function(t,e){for(var r,n,i=0;i<t.length&&(r=t[i])!==e;i++)r._indexToPoints&&!1!==r.enabled&&(n=r._indexToPoints);return n?function(t){return n[t]}:function(t){return[t]}}},{}],1214:[function(t,e,r){\\\"use strict\\\";var n=t(\\\"../lib\\\"),i=t(\\\"../plots/cartesian/axes\\\"),a=t(\\\"./helpers\\\").pointsAccessorFunction;r.moduleType=\\\"transform\\\",r.name=\\\"sort\\\",r.attributes={enabled:{valType:\\\"boolean\\\",dflt:!0,editType:\\\"calc\\\"},target:{valType:\\\"string\\\",strict:!0,noBlank:!0,arrayOk:!0,dflt:\\\"x\\\",editType:\\\"calc\\\"},order:{valType:\\\"enumerated\\\",values:[\\\"ascending\\\",\\\"descending\\\"],dflt:\\\"ascending\\\",editType:\\\"calc\\\"},editType:\\\"calc\\\"},r.supplyDefaults=function(t){var e={};function i(i,a){return n.coerce(t,e,r.attributes,i,a)}return i(\\\"enabled\\\")&&(i(\\\"target\\\"),i(\\\"order\\\")),e},r.calcTransform=function(t,e,r){if(r.enabled){var o=n.getTargetArray(e,r);if(o){var s=r.target,l=o.length;e._length&&(l=Math.min(l,e._length));var c,u,f=e._arrayAttrs,h=function(t,e,r,n){var i,a=new Array(n),o=new Array(n);for(i=0;i<n;i++)a[i]={v:e[i],i:i};for(a.sort(function(t,e){switch(t.order){case\\\"ascending\\\":return function(t,r){return e(t.v)-e(r.v)};case\\\"descending\\\":return function(t,r){return e(r.v)-e(t.v)}}}(t,r)),i=0;i<n;i++)o[i]=a[i].i;return o}(r,o,i.getDataToCoordFunc(t,e,s,o),l),p=a(e.transforms,r),d={};for(c=0;c<f.length;c++){var g=n.nestedProperty(e,f[c]),v=g.get(),m=new Array(l);for(u=0;u<l;u++)m[u]=v[h[u]];g.set(m)}for(u=0;u<l;u++)d[u]=p(h[u]);r._indexToPoints=d,e._length=l}}}},{\\\"../lib\\\":703,\\\"../plots/cartesian/axes\\\":751,\\\"./helpers\\\":1213}]},{},[24])(24)});\\n\",\n       \"        });\\n\",\n       \"        require(['plotly'], function(Plotly) {\\n\",\n       \"            window._Plotly = Plotly;\\n\",\n       \"        });\\n\",\n       \"        }\\n\",\n       \"        </script>\\n\",\n       \"        \"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"application/vnd.plotly.v1+json\": {\n       \"config\": {\n        \"plotlyServerURL\": \"https://plot.ly\"\n       },\n       \"data\": [\n        {\n         \"hoverlabel\": {\n          \"namelength\": 0\n         },\n         \"hovertemplate\": \"total_iters=%{x}<br>train_mse_loss=%{y}\",\n         \"legendgroup\": \"\",\n         \"line\": {\n          \"color\": \"#636efa\",\n          \"dash\": \"solid\"\n         },\n         \"mode\": \"lines\",\n         \"name\": \"\",\n         \"showlegend\": false,\n         \"type\": \"scatter\",\n         \"x\": [\n          1,\n          2,\n          3,\n          4,\n          5,\n          6,\n          7,\n          8,\n          9,\n          10,\n          11,\n          12,\n          13,\n          14,\n          15,\n          16,\n          17,\n          18,\n          19,\n          20,\n          21,\n          22,\n          23,\n          24,\n          25,\n          26,\n          27,\n          28,\n          29,\n          30,\n          31,\n          32,\n          33,\n          34,\n          35,\n          36,\n          37,\n          38,\n          39,\n          40,\n          41,\n          42,\n          43,\n          44,\n          45,\n          46,\n          47,\n          48,\n          49,\n          50,\n          51,\n          52,\n          53,\n          54,\n          55,\n          56,\n          57,\n          58,\n          59,\n          60,\n          61,\n          62,\n          63,\n          64,\n          65,\n          66,\n          67,\n          68,\n          69,\n          70,\n          71,\n          72,\n          73,\n          74,\n          75,\n          76,\n          77,\n          78,\n          79,\n          80,\n          81,\n          82,\n          83,\n          84,\n          85,\n          86,\n          87,\n          88,\n          89,\n          90,\n          91,\n          92,\n          93,\n          94,\n          95,\n          96,\n          97,\n          98,\n          99,\n          100,\n          101,\n          102,\n          103,\n          104,\n          105,\n          106,\n          107,\n          108,\n          109,\n          110,\n          111,\n          112,\n          113,\n          114,\n          115,\n          116,\n          117,\n          118,\n          119,\n          120,\n          121,\n          122,\n          123,\n          124,\n          125,\n          126,\n          127,\n          128,\n          129,\n          130,\n          131,\n          132,\n          133,\n          134,\n          135,\n          136,\n          137,\n          138,\n          139,\n          140,\n          141,\n          142,\n          143,\n          144,\n          145,\n          146,\n          147,\n          148,\n          149,\n          150,\n          151,\n          152,\n          153,\n          154,\n          155,\n          156,\n          157,\n          158,\n          159,\n          160,\n          161,\n          162,\n          163,\n          164,\n          165,\n          166,\n          167,\n          168,\n          169,\n          170,\n          171,\n          172,\n          173,\n          174,\n          175,\n          176,\n          177,\n          178,\n          179,\n          180,\n          181,\n          182,\n          183,\n          184,\n          185,\n          186,\n          187,\n          188,\n          189,\n          190,\n          191,\n          192,\n          193,\n          194,\n          195,\n          196,\n          197,\n          198,\n          199,\n          200,\n          201,\n          202,\n          203,\n          204,\n          205,\n          206,\n          207,\n          208,\n          209,\n          210,\n          211,\n          212,\n          213,\n          214,\n          215,\n          216,\n          217,\n          218,\n          219,\n          220,\n          221,\n          222,\n          223,\n          224,\n          225,\n          226,\n          227,\n          228,\n          229,\n          230,\n          231,\n          232,\n          233,\n          234,\n          235,\n          236,\n          237,\n          238,\n          239,\n          240,\n          241,\n          242,\n          243,\n          244,\n          245,\n          246,\n          247,\n          248,\n          249,\n          250,\n          251,\n          252,\n          253,\n          254,\n          255,\n          256,\n          257,\n          258,\n          259,\n          260,\n          261,\n          262,\n          263,\n          264,\n          265,\n          266,\n          267,\n          268,\n          269,\n          270,\n          271,\n          272,\n          273,\n          274,\n          275,\n          276,\n          277,\n          278,\n          279,\n          280,\n          281,\n          282,\n          283,\n          284,\n          285,\n          286,\n          287,\n          288,\n          289,\n          290,\n          291,\n          292,\n          293,\n          294,\n          295,\n          296,\n          297,\n          298,\n          299,\n          300,\n          301,\n          302,\n          303,\n          304,\n          305,\n          306,\n          307,\n          308,\n          309,\n          310,\n          311,\n          312,\n          313,\n          314,\n          315,\n          316,\n          317,\n          318,\n          319,\n          320,\n          321,\n          322,\n          323,\n          324,\n          325,\n          326,\n          327,\n          328,\n          329,\n          330,\n          331,\n          332,\n          333,\n          334,\n          335,\n          336,\n          337,\n          338,\n          339,\n          340,\n          341,\n          342,\n          343,\n          344,\n          345,\n          346,\n          347,\n          348,\n          349,\n          350,\n          351,\n          352,\n          353,\n          354,\n          355,\n          356,\n          357,\n          358,\n          359,\n          360,\n          361,\n          362,\n          363,\n          364,\n          365,\n          366,\n          367,\n          368,\n          369,\n          370,\n          371,\n          372,\n          373,\n          374,\n          375,\n          376,\n          377,\n          378,\n          379,\n          380,\n          381,\n          382,\n          383,\n          384,\n          385,\n          386,\n          387,\n          388,\n          389,\n          390,\n          391,\n          392,\n          393,\n          394,\n          395,\n          396,\n          397,\n          398,\n          399,\n          400,\n          401,\n          402,\n          403,\n          404,\n          405,\n          406,\n          407,\n          408,\n          409,\n          410,\n          411,\n          412,\n          413,\n          414,\n          415,\n          416,\n          417,\n          418,\n          419,\n          420,\n          421,\n          422,\n          423,\n          424,\n          425,\n          426,\n          427,\n          428,\n          429,\n          430,\n          431,\n          432,\n          433,\n          434,\n          435,\n          436,\n          437,\n          438,\n          439,\n          440,\n          441,\n          442,\n          443,\n          444,\n          445,\n          446,\n          447,\n          448,\n          449,\n          450,\n          451,\n          452,\n          453,\n          454,\n          455,\n          456,\n          457,\n          458,\n          459,\n          460,\n          461,\n          462,\n          463\n         ],\n         \"xaxis\": \"x\",\n         \"y\": [\n          412426.46875,\n          412127.28125,\n          411895.40625,\n          411632.9375,\n          411355.40625,\n          411056.1875,\n          410759.5625,\n          410400.59375,\n          409998.25,\n          409527.25,\n          408931.8125,\n          408257.75,\n          407779.5,\n          407108.25,\n          406505.9375,\n          405846.59375,\n          405229.53125,\n          404653.59375,\n          404064.375,\n          403508.40625,\n          402888.71875,\n          402156.5625,\n          401490.65625,\n          400785.03125,\n          400000.46875,\n          399294.125,\n          398293.15625,\n          397591.75,\n          396625.125,\n          395618.1875,\n          394620.46875,\n          393905.90625,\n          392839.15625,\n          391872.28125,\n          390822.65625,\n          389938.40625,\n          388881.1875,\n          387913.78125,\n          386913.75,\n          385746.53125,\n          384666.0625,\n          383836.84375,\n          382496.8125,\n          381395.28125,\n          380488.09375,\n          379381.28125,\n          378110.9375,\n          377011.4375,\n          375314.9375,\n          374370.625,\n          372966.4375,\n          371798.15625,\n          370344.6875,\n          368968.6875,\n          367698.375,\n          366159.5625,\n          364602.65625,\n          363320.375,\n          361621.09375,\n          360537.90625,\n          359193.59375,\n          357465.1875,\n          356337.78125,\n          354326.5625,\n          353102.53125,\n          352212.28125,\n          350596.53125,\n          349645.875,\n          348250.46875,\n          346593.5,\n          345624.59375,\n          344115.84375,\n          342544.3125,\n          341875,\n          340052.1875,\n          339020.375,\n          336976.03125,\n          336234.5625,\n          334850.21875,\n          333108.4375,\n          331520.5625,\n          330253.34375,\n          329257.125,\n          327816.28125,\n          326581.40625,\n          325415.5,\n          324229.25,\n          322425.40625,\n          321064.625,\n          320296.9375,\n          318827.9375,\n          317513.375,\n          316739.21875,\n          314235.71875,\n          313213.375,\n          312336.125,\n          310915.59375,\n          309210.1875,\n          308184.8125,\n          306864.25,\n          304809.28125,\n          303015.53125,\n          302828.25,\n          302757.59375,\n          299019.875,\n          297479.9375,\n          296496.75,\n          293895.375,\n          292675.0625,\n          291454.3125,\n          289735,\n          288134.46875,\n          286958.53125,\n          285300.5625,\n          284462.46875,\n          283851.15625,\n          281507.625,\n          279862.375,\n          278847.6875,\n          276798.15625,\n          275527.75,\n          273599.625,\n          272917.15625,\n          270753.625,\n          268673.25,\n          267510.375,\n          266615.75,\n          264759.59375,\n          263555.25,\n          261830.9375,\n          260878.703125,\n          258450.578125,\n          257746.28125,\n          256378.515625,\n          254313.65625,\n          254008.484375,\n          254319.375,\n          251180.53125,\n          251602.875,\n          249237.640625,\n          246993.8125,\n          246150.671875,\n          245318.40625,\n          243810.53125,\n          242644.484375,\n          242590.796875,\n          241093.578125,\n          239242.546875,\n          237848.515625,\n          236995.75,\n          235354.046875,\n          233019.640625,\n          232065.78125,\n          231312.421875,\n          229609.734375,\n          228191.75,\n          226382.828125,\n          225689,\n          224034.25,\n          223121.90625,\n          224081.484375,\n          219796.953125,\n          218624.125,\n          218874.625,\n          216867.859375,\n          214310.96875,\n          214021.796875,\n          213006.265625,\n          211505.15625,\n          209420.78125,\n          208241.453125,\n          208553.25,\n          205905.8125,\n          203749.15625,\n          202657.890625,\n          201988.09375,\n          202054.375,\n          199268.125,\n          199430.5,\n          198436.578125,\n          196566.84375,\n          194737.015625,\n          194150.109375,\n          192740.328125,\n          191617.609375,\n          190558.671875,\n          189541.59375,\n          187644.734375,\n          188078.84375,\n          186565.640625,\n          184717.203125,\n          184365.5625,\n          181888.625,\n          181893.765625,\n          180669.953125,\n          179222.609375,\n          178517.609375,\n          176916.4375,\n          176726.421875,\n          175759.171875,\n          173693.203125,\n          173669.71875,\n          171776.171875,\n          171089.3125,\n          169996.9375,\n          170041.859375,\n          167464.8125,\n          167233.453125,\n          165312.78125,\n          164382.0625,\n          163685.484375,\n          163160.890625,\n          161112.78125,\n          160035.515625,\n          158884.78125,\n          156568.265625,\n          155951.15625,\n          157097.0625,\n          154077.5,\n          151361.5,\n          151542.171875,\n          149745.3125,\n          148717.9375,\n          146934.0625,\n          146407.921875,\n          142646.90625,\n          141848.234375,\n          141738.25,\n          140234.140625,\n          138813.078125,\n          137293.09375,\n          136952.328125,\n          134945.828125,\n          133180.625,\n          130682.0546875,\n          129125.640625,\n          128792.96875,\n          130926.1015625,\n          129014.234375,\n          127311.890625,\n          126230.7421875,\n          125395.359375,\n          123621.0234375,\n          121075.53125,\n          120980.4921875,\n          119294.5078125,\n          118844.4140625,\n          116861.84375,\n          116118.109375,\n          115511.484375,\n          113747.0546875,\n          113252.1796875,\n          112732.15625,\n          111645.0859375,\n          109609.5,\n          109200.296875,\n          106737.4453125,\n          106952.4375,\n          106982.0078125,\n          104524.6875,\n          102848.75,\n          103617.0390625,\n          103151.4765625,\n          101069.5546875,\n          101120.53125,\n          101425.75,\n          97541.21875,\n          98244.5546875,\n          94478.640625,\n          95440.75,\n          94609.546875,\n          92704.34375,\n          91112.484375,\n          88899.28125,\n          92308.984375,\n          91578.890625,\n          88241.375,\n          89028.1875,\n          88609.7734375,\n          87006.2265625,\n          85704.703125,\n          84399.3515625,\n          82483.3671875,\n          82058.2265625,\n          80714.515625,\n          82405.7734375,\n          80551.78125,\n          80511.6484375,\n          81523.046875,\n          79057.46875,\n          77394.75,\n          76282.703125,\n          76742.859375,\n          76243.28125,\n          75893.0390625,\n          76956.6328125,\n          75463.375,\n          75526.765625,\n          72347.3828125,\n          74753.8828125,\n          72366.9609375,\n          72330.0546875,\n          70895.6640625,\n          69971.71875,\n          72466.078125,\n          70695.7734375,\n          66714.125,\n          68628.2109375,\n          66941.3671875,\n          65171.453125,\n          66235.0078125,\n          67197.2578125,\n          68317.0390625,\n          65052.33203125,\n          62928.95703125,\n          62452.8359375,\n          60834.984375,\n          62165.17578125,\n          63670.24609375,\n          61831.1796875,\n          59508.2890625,\n          56989.90234375,\n          57554.51953125,\n          57911.8515625,\n          58101.49609375,\n          55921.87109375,\n          55108.61328125,\n          54438.578125,\n          54767.52734375,\n          54246.9375,\n          51666.19140625,\n          54919.546875,\n          56076.07421875,\n          54236.28125,\n          51691.51171875,\n          50289.16015625,\n          50875.5703125,\n          50657.8515625,\n          48763.7109375,\n          49105.359375,\n          49037.625,\n          48802.21875,\n          48522.22265625,\n          48398.82421875,\n          46503.83984375,\n          46930.84375,\n          45817.8984375,\n          45082.625,\n          44712.23046875,\n          45136.64453125,\n          44772.75390625,\n          43164.41796875,\n          42501.86328125,\n          42460.30078125,\n          42481.0078125,\n          40491.328125,\n          39963.484375,\n          39447.89453125,\n          40228.34375,\n          38211.0234375,\n          40201.7890625,\n          39416.31640625,\n          36628.77734375,\n          36761.75390625,\n          37630.86328125,\n          37858.0546875,\n          35433.07421875,\n          36139.46484375,\n          37011.3984375,\n          34697.28125,\n          36198.68359375,\n          34586.16796875,\n          33212.4140625,\n          34610.8984375,\n          34618.6171875,\n          32463.458984375,\n          32402,\n          33882.94921875,\n          32118.7265625,\n          31199.62109375,\n          30060.642578125,\n          30463.2421875,\n          29822.1953125,\n          29694.126953125,\n          31256.478515625,\n          28586.34765625,\n          28829.193359375,\n          27812.556640625,\n          29595.794921875,\n          27090.515625,\n          31575.8046875,\n          32938.2421875,\n          28560.6796875,\n          28116.38671875,\n          25909.162109375,\n          26189.30859375,\n          24811.82421875,\n          24667.14453125,\n          25124.8984375,\n          27953.9296875,\n          27813.34765625,\n          25177.279296875,\n          26428.21875,\n          27400.869140625,\n          27269.369140625,\n          25591.94140625,\n          27366.966796875,\n          24547.8671875,\n          24011.79296875,\n          33498.4453125,\n          29893.744140625,\n          25655.974609375,\n          26120.3125,\n          24497.322265625,\n          23734.734375,\n          23257.162109375,\n          22522.521484375,\n          22484.41796875,\n          22226.064453125,\n          22152.783203125,\n          23683.677734375,\n          22123.896484375,\n          21504.9453125,\n          19593.576171875,\n          20097.822265625,\n          21641.35546875,\n          21042.498046875,\n          20249.3671875,\n          22826.0625,\n          22865.71484375,\n          21356.6953125,\n          18715.734375,\n          19160.7578125,\n          20198.5625,\n          18345.4765625,\n          19927.109375,\n          18770.890625,\n          19359.271484375,\n          17675.25,\n          20586.921875,\n          24884.453125,\n          21406.33984375,\n          18404.294921875,\n          18419.724609375,\n          18862.73828125,\n          16852.96875,\n          17785.443359375,\n          16188.6640625,\n          17168.6875,\n          17356.892578125,\n          15720.158203125,\n          16750.71875,\n          17356.15234375,\n          14854.0888671875,\n          15740.3671875,\n          14763.865234375,\n          16557.478515625,\n          14421.755859375,\n          18536.9140625,\n          21901.998046875,\n          21083.56640625,\n          16500.416015625,\n          17455.056640625\n         ],\n         \"yaxis\": \"y\"\n        }\n       ],\n       \"layout\": {\n        \"autosize\": true,\n        \"legend\": {\n         \"tracegroupgap\": 0\n        },\n        \"margin\": {\n         \"t\": 60\n        },\n        \"template\": {\n         \"data\": {\n          \"bar\": [\n           {\n            \"error_x\": {\n             \"color\": \"#2a3f5f\"\n            },\n            \"error_y\": {\n             \"color\": \"#2a3f5f\"\n            },\n            \"marker\": {\n             \"line\": {\n              \"color\": \"#E5ECF6\",\n              \"width\": 0.5\n             }\n            },\n            \"type\": \"bar\"\n           }\n          ],\n          \"barpolar\": [\n           {\n            \"marker\": {\n             \"line\": {\n              \"color\": \"#E5ECF6\",\n              \"width\": 0.5\n             }\n            },\n            \"type\": \"barpolar\"\n           }\n          ],\n          \"carpet\": [\n           {\n            \"aaxis\": {\n             \"endlinecolor\": \"#2a3f5f\",\n             \"gridcolor\": \"white\",\n             \"linecolor\": \"white\",\n             \"minorgridcolor\": \"white\",\n             \"startlinecolor\": \"#2a3f5f\"\n            },\n            \"baxis\": {\n             \"endlinecolor\": \"#2a3f5f\",\n             \"gridcolor\": \"white\",\n             \"linecolor\": \"white\",\n             \"minorgridcolor\": \"white\",\n             \"startlinecolor\": \"#2a3f5f\"\n            },\n            \"type\": \"carpet\"\n           }\n          ],\n          \"choropleth\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"type\": \"choropleth\"\n           }\n          ],\n          \"contour\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"contour\"\n           }\n          ],\n          \"contourcarpet\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"type\": \"contourcarpet\"\n           }\n          ],\n          \"heatmap\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"heatmap\"\n           }\n          ],\n          \"heatmapgl\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"heatmapgl\"\n           }\n          ],\n          \"histogram\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"histogram\"\n           }\n          ],\n          \"histogram2d\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"histogram2d\"\n           }\n          ],\n          \"histogram2dcontour\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"histogram2dcontour\"\n           }\n          ],\n          \"mesh3d\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"type\": \"mesh3d\"\n           }\n          ],\n          \"parcoords\": [\n           {\n            \"line\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"parcoords\"\n           }\n          ],\n          \"scatter\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatter\"\n           }\n          ],\n          \"scatter3d\": [\n           {\n            \"line\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatter3d\"\n           }\n          ],\n          \"scattercarpet\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattercarpet\"\n           }\n          ],\n          \"scattergeo\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattergeo\"\n           }\n          ],\n          \"scattergl\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattergl\"\n           }\n          ],\n          \"scattermapbox\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattermapbox\"\n           }\n          ],\n          \"scatterpolar\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatterpolar\"\n           }\n          ],\n          \"scatterpolargl\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatterpolargl\"\n           }\n          ],\n          \"scatterternary\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatterternary\"\n           }\n          ],\n          \"surface\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"surface\"\n           }\n          ],\n          \"table\": [\n           {\n            \"cells\": {\n             \"fill\": {\n              \"color\": \"#EBF0F8\"\n             },\n             \"line\": {\n              \"color\": \"white\"\n             }\n            },\n            \"header\": {\n             \"fill\": {\n              \"color\": \"#C8D4E3\"\n             },\n             \"line\": {\n              \"color\": \"white\"\n             }\n            },\n            \"type\": \"table\"\n           }\n          ]\n         },\n         \"layout\": {\n          \"annotationdefaults\": {\n           \"arrowcolor\": \"#2a3f5f\",\n           \"arrowhead\": 0,\n           \"arrowwidth\": 1\n          },\n          \"colorscale\": {\n           \"diverging\": [\n            [\n             0,\n             \"#8e0152\"\n            ],\n            [\n             0.1,\n             \"#c51b7d\"\n            ],\n            [\n             0.2,\n             \"#de77ae\"\n            ],\n            [\n             0.3,\n             \"#f1b6da\"\n            ],\n            [\n             0.4,\n             \"#fde0ef\"\n            ],\n            [\n             0.5,\n             \"#f7f7f7\"\n            ],\n            [\n             0.6,\n             \"#e6f5d0\"\n            ],\n            [\n             0.7,\n             \"#b8e186\"\n            ],\n            [\n             0.8,\n             \"#7fbc41\"\n            ],\n            [\n             0.9,\n             \"#4d9221\"\n            ],\n            [\n             1,\n             \"#276419\"\n            ]\n           ],\n           \"sequential\": [\n            [\n             0,\n             \"#0d0887\"\n            ],\n            [\n             0.1111111111111111,\n             \"#46039f\"\n            ],\n            [\n             0.2222222222222222,\n             \"#7201a8\"\n            ],\n            [\n             0.3333333333333333,\n             \"#9c179e\"\n            ],\n            [\n             0.4444444444444444,\n             \"#bd3786\"\n            ],\n            [\n             0.5555555555555556,\n             \"#d8576b\"\n            ],\n            [\n             0.6666666666666666,\n             \"#ed7953\"\n            ],\n            [\n             0.7777777777777778,\n             \"#fb9f3a\"\n            ],\n            [\n             0.8888888888888888,\n             \"#fdca26\"\n            ],\n            [\n             1,\n             \"#f0f921\"\n            ]\n           ],\n           \"sequentialminus\": [\n            [\n             0,\n             \"#0d0887\"\n            ],\n            [\n             0.1111111111111111,\n             \"#46039f\"\n            ],\n            [\n             0.2222222222222222,\n             \"#7201a8\"\n            ],\n            [\n             0.3333333333333333,\n             \"#9c179e\"\n            ],\n            [\n             0.4444444444444444,\n             \"#bd3786\"\n            ],\n            [\n             0.5555555555555556,\n             \"#d8576b\"\n            ],\n            [\n             0.6666666666666666,\n             \"#ed7953\"\n            ],\n            [\n             0.7777777777777778,\n             \"#fb9f3a\"\n            ],\n            [\n             0.8888888888888888,\n             \"#fdca26\"\n            ],\n            [\n             1,\n             \"#f0f921\"\n            ]\n           ]\n          },\n          \"colorway\": [\n           \"#636efa\",\n           \"#EF553B\",\n           \"#00cc96\",\n           \"#ab63fa\",\n           \"#FFA15A\",\n           \"#19d3f3\",\n           \"#FF6692\",\n           \"#B6E880\",\n           \"#FF97FF\",\n           \"#FECB52\"\n          ],\n          \"font\": {\n           \"color\": \"#2a3f5f\"\n          },\n          \"geo\": {\n           \"bgcolor\": \"white\",\n           \"lakecolor\": \"white\",\n           \"landcolor\": \"#E5ECF6\",\n           \"showlakes\": true,\n           \"showland\": true,\n           \"subunitcolor\": \"white\"\n          },\n          \"hoverlabel\": {\n           \"align\": \"left\"\n          },\n          \"hovermode\": \"closest\",\n          \"mapbox\": {\n           \"style\": \"light\"\n          },\n          \"paper_bgcolor\": \"white\",\n          \"plot_bgcolor\": \"#E5ECF6\",\n          \"polar\": {\n           \"angularaxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           },\n           \"bgcolor\": \"#E5ECF6\",\n           \"radialaxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           }\n          },\n          \"scene\": {\n           \"xaxis\": {\n            \"backgroundcolor\": \"#E5ECF6\",\n            \"gridcolor\": \"white\",\n            \"gridwidth\": 2,\n            \"linecolor\": \"white\",\n            \"showbackground\": true,\n            \"ticks\": \"\",\n            \"zerolinecolor\": \"white\"\n           },\n           \"yaxis\": {\n            \"backgroundcolor\": \"#E5ECF6\",\n            \"gridcolor\": \"white\",\n            \"gridwidth\": 2,\n            \"linecolor\": \"white\",\n            \"showbackground\": true,\n            \"ticks\": \"\",\n            \"zerolinecolor\": \"white\"\n           },\n           \"zaxis\": {\n            \"backgroundcolor\": \"#E5ECF6\",\n            \"gridcolor\": \"white\",\n            \"gridwidth\": 2,\n            \"linecolor\": \"white\",\n            \"showbackground\": true,\n            \"ticks\": \"\",\n            \"zerolinecolor\": \"white\"\n           }\n          },\n          \"shapedefaults\": {\n           \"line\": {\n            \"color\": \"#2a3f5f\"\n           }\n          },\n          \"ternary\": {\n           \"aaxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           },\n           \"baxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           },\n           \"bgcolor\": \"#E5ECF6\",\n           \"caxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           }\n          },\n          \"title\": {\n           \"x\": 0.05\n          },\n          \"xaxis\": {\n           \"automargin\": true,\n           \"gridcolor\": \"white\",\n           \"linecolor\": \"white\",\n           \"ticks\": \"\",\n           \"zerolinecolor\": \"white\",\n           \"zerolinewidth\": 2\n          },\n          \"yaxis\": {\n           \"automargin\": true,\n           \"gridcolor\": \"white\",\n           \"linecolor\": \"white\",\n           \"ticks\": \"\",\n           \"zerolinecolor\": \"white\",\n           \"zerolinewidth\": 2\n          }\n         }\n        },\n        \"xaxis\": {\n         \"anchor\": \"y\",\n         \"autorange\": true,\n         \"domain\": [\n          0,\n          0.98\n         ],\n         \"range\": [\n          1,\n          463\n         ],\n         \"title\": {\n          \"text\": \"total_iters\"\n         },\n         \"type\": \"linear\"\n        },\n        \"yaxis\": {\n         \"anchor\": \"x\",\n         \"autorange\": true,\n         \"domain\": [\n          0,\n          1\n         ],\n         \"range\": [\n          -7689.617078993058,\n          434537.84168836806\n         ],\n         \"title\": {\n          \"text\": \"train_mse_loss\"\n         },\n         \"type\": \"linear\"\n        }\n       }\n      },\n      \"image/png\": \"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\",\n      \"text/html\": [\n       \"<div>\\n\",\n       \"        \\n\",\n       \"        \\n\",\n       \"            <div id=\\\"79408a4c-299c-4e4e-819e-5d069cf07c41\\\" class=\\\"plotly-graph-div\\\" style=\\\"height:600px; width:100%;\\\"></div>\\n\",\n       \"            <script type=\\\"text/javascript\\\">\\n\",\n       \"                require([\\\"plotly\\\"], function(Plotly) {\\n\",\n       \"                    window.PLOTLYENV=window.PLOTLYENV || {};\\n\",\n       \"                    \\n\",\n       \"                if (document.getElementById(\\\"79408a4c-299c-4e4e-819e-5d069cf07c41\\\")) {\\n\",\n       \"                    Plotly.newPlot(\\n\",\n       \"                        '79408a4c-299c-4e4e-819e-5d069cf07c41',\\n\",\n       \"                        [{\\\"hoverlabel\\\": {\\\"namelength\\\": 0}, \\\"hovertemplate\\\": \\\"total_iters=%{x}<br>train_mse_loss=%{y}\\\", \\\"legendgroup\\\": \\\"\\\", \\\"line\\\": {\\\"color\\\": \\\"#636efa\\\", \\\"dash\\\": \\\"solid\\\"}, \\\"mode\\\": \\\"lines\\\", \\\"name\\\": \\\"\\\", \\\"showlegend\\\": false, \\\"type\\\": \\\"scatter\\\", \\\"x\\\": [1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27, 28, 29, 30, 31, 32, 33, 34, 35, 36, 37, 38, 39, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49, 50, 51, 52, 53, 54, 55, 56, 57, 58, 59, 60, 61, 62, 63, 64, 65, 66, 67, 68, 69, 70, 71, 72, 73, 74, 75, 76, 77, 78, 79, 80, 81, 82, 83, 84, 85, 86, 87, 88, 89, 90, 91, 92, 93, 94, 95, 96, 97, 98, 99, 100, 101, 102, 103, 104, 105, 106, 107, 108, 109, 110, 111, 112, 113, 114, 115, 116, 117, 118, 119, 120, 121, 122, 123, 124, 125, 126, 127, 128, 129, 130, 131, 132, 133, 134, 135, 136, 137, 138, 139, 140, 141, 142, 143, 144, 145, 146, 147, 148, 149, 150, 151, 152, 153, 154, 155, 156, 157, 158, 159, 160, 161, 162, 163, 164, 165, 166, 167, 168, 169, 170, 171, 172, 173, 174, 175, 176, 177, 178, 179, 180, 181, 182, 183, 184, 185, 186, 187, 188, 189, 190, 191, 192, 193, 194, 195, 196, 197, 198, 199, 200, 201, 202, 203, 204, 205, 206, 207, 208, 209, 210, 211, 212, 213, 214, 215, 216, 217, 218, 219, 220, 221, 222, 223, 224, 225, 226, 227, 228, 229, 230, 231, 232, 233, 234, 235, 236, 237, 238, 239, 240, 241, 242, 243, 244, 245, 246, 247, 248, 249, 250, 251, 252, 253, 254, 255, 256, 257, 258, 259, 260, 261, 262, 263, 264, 265, 266, 267, 268, 269, 270, 271, 272, 273, 274, 275, 276, 277, 278, 279, 280, 281, 282, 283, 284, 285, 286, 287, 288, 289, 290, 291, 292, 293, 294, 295, 296, 297, 298, 299, 300, 301, 302, 303, 304, 305, 306, 307, 308, 309, 310, 311, 312, 313, 314, 315, 316, 317, 318, 319, 320, 321, 322, 323, 324, 325, 326, 327, 328, 329, 330, 331, 332, 333, 334, 335, 336, 337, 338, 339, 340, 341, 342, 343, 344, 345, 346, 347, 348, 349, 350, 351, 352, 353, 354, 355, 356, 357, 358, 359, 360, 361, 362, 363, 364, 365, 366, 367, 368, 369, 370, 371, 372, 373, 374, 375, 376, 377, 378, 379, 380, 381, 382, 383, 384, 385, 386, 387, 388, 389, 390, 391, 392, 393, 394, 395, 396, 397, 398, 399, 400, 401, 402, 403, 404, 405, 406, 407, 408, 409, 410, 411, 412, 413, 414, 415, 416, 417, 418, 419, 420, 421, 422, 423, 424, 425, 426, 427, 428, 429, 430, 431, 432, 433, 434, 435, 436, 437, 438, 439, 440, 441, 442, 443, 444, 445, 446, 447, 448, 449, 450, 451, 452, 453, 454, 455, 456, 457, 458, 459, 460, 461, 462, 463], \\\"xaxis\\\": \\\"x\\\", \\\"y\\\": [412426.46875, 412127.28125, 411895.40625, 411632.9375, 411355.40625, 411056.1875, 410759.5625, 410400.59375, 409998.25, 409527.25, 408931.8125, 408257.75, 407779.5, 407108.25, 406505.9375, 405846.59375, 405229.53125, 404653.59375, 404064.375, 403508.40625, 402888.71875, 402156.5625, 401490.65625, 400785.03125, 400000.46875, 399294.125, 398293.15625, 397591.75, 396625.125, 395618.1875, 394620.46875, 393905.90625, 392839.15625, 391872.28125, 390822.65625, 389938.40625, 388881.1875, 387913.78125, 386913.75, 385746.53125, 384666.0625, 383836.84375, 382496.8125, 381395.28125, 380488.09375, 379381.28125, 378110.9375, 377011.4375, 375314.9375, 374370.625, 372966.4375, 371798.15625, 370344.6875, 368968.6875, 367698.375, 366159.5625, 364602.65625, 363320.375, 361621.09375, 360537.90625, 359193.59375, 357465.1875, 356337.78125, 354326.5625, 353102.53125, 352212.28125, 350596.53125, 349645.875, 348250.46875, 346593.5, 345624.59375, 344115.84375, 342544.3125, 341875.0, 340052.1875, 339020.375, 336976.03125, 336234.5625, 334850.21875, 333108.4375, 331520.5625, 330253.34375, 329257.125, 327816.28125, 326581.40625, 325415.5, 324229.25, 322425.40625, 321064.625, 320296.9375, 318827.9375, 317513.375, 316739.21875, 314235.71875, 313213.375, 312336.125, 310915.59375, 309210.1875, 308184.8125, 306864.25, 304809.28125, 303015.53125, 302828.25, 302757.59375, 299019.875, 297479.9375, 296496.75, 293895.375, 292675.0625, 291454.3125, 289735.0, 288134.46875, 286958.53125, 285300.5625, 284462.46875, 283851.15625, 281507.625, 279862.375, 278847.6875, 276798.15625, 275527.75, 273599.625, 272917.15625, 270753.625, 268673.25, 267510.375, 266615.75, 264759.59375, 263555.25, 261830.9375, 260878.703125, 258450.578125, 257746.28125, 256378.515625, 254313.65625, 254008.484375, 254319.375, 251180.53125, 251602.875, 249237.640625, 246993.8125, 246150.671875, 245318.40625, 243810.53125, 242644.484375, 242590.796875, 241093.578125, 239242.546875, 237848.515625, 236995.75, 235354.046875, 233019.640625, 232065.78125, 231312.421875, 229609.734375, 228191.75, 226382.828125, 225689.0, 224034.25, 223121.90625, 224081.484375, 219796.953125, 218624.125, 218874.625, 216867.859375, 214310.96875, 214021.796875, 213006.265625, 211505.15625, 209420.78125, 208241.453125, 208553.25, 205905.8125, 203749.15625, 202657.890625, 201988.09375, 202054.375, 199268.125, 199430.5, 198436.578125, 196566.84375, 194737.015625, 194150.109375, 192740.328125, 191617.609375, 190558.671875, 189541.59375, 187644.734375, 188078.84375, 186565.640625, 184717.203125, 184365.5625, 181888.625, 181893.765625, 180669.953125, 179222.609375, 178517.609375, 176916.4375, 176726.421875, 175759.171875, 173693.203125, 173669.71875, 171776.171875, 171089.3125, 169996.9375, 170041.859375, 167464.8125, 167233.453125, 165312.78125, 164382.0625, 163685.484375, 163160.890625, 161112.78125, 160035.515625, 158884.78125, 156568.265625, 155951.15625, 157097.0625, 154077.5, 151361.5, 151542.171875, 149745.3125, 148717.9375, 146934.0625, 146407.921875, 142646.90625, 141848.234375, 141738.25, 140234.140625, 138813.078125, 137293.09375, 136952.328125, 134945.828125, 133180.625, 130682.0546875, 129125.640625, 128792.96875, 130926.1015625, 129014.234375, 127311.890625, 126230.7421875, 125395.359375, 123621.0234375, 121075.53125, 120980.4921875, 119294.5078125, 118844.4140625, 116861.84375, 116118.109375, 115511.484375, 113747.0546875, 113252.1796875, 112732.15625, 111645.0859375, 109609.5, 109200.296875, 106737.4453125, 106952.4375, 106982.0078125, 104524.6875, 102848.75, 103617.0390625, 103151.4765625, 101069.5546875, 101120.53125, 101425.75, 97541.21875, 98244.5546875, 94478.640625, 95440.75, 94609.546875, 92704.34375, 91112.484375, 88899.28125, 92308.984375, 91578.890625, 88241.375, 89028.1875, 88609.7734375, 87006.2265625, 85704.703125, 84399.3515625, 82483.3671875, 82058.2265625, 80714.515625, 82405.7734375, 80551.78125, 80511.6484375, 81523.046875, 79057.46875, 77394.75, 76282.703125, 76742.859375, 76243.28125, 75893.0390625, 76956.6328125, 75463.375, 75526.765625, 72347.3828125, 74753.8828125, 72366.9609375, 72330.0546875, 70895.6640625, 69971.71875, 72466.078125, 70695.7734375, 66714.125, 68628.2109375, 66941.3671875, 65171.453125, 66235.0078125, 67197.2578125, 68317.0390625, 65052.33203125, 62928.95703125, 62452.8359375, 60834.984375, 62165.17578125, 63670.24609375, 61831.1796875, 59508.2890625, 56989.90234375, 57554.51953125, 57911.8515625, 58101.49609375, 55921.87109375, 55108.61328125, 54438.578125, 54767.52734375, 54246.9375, 51666.19140625, 54919.546875, 56076.07421875, 54236.28125, 51691.51171875, 50289.16015625, 50875.5703125, 50657.8515625, 48763.7109375, 49105.359375, 49037.625, 48802.21875, 48522.22265625, 48398.82421875, 46503.83984375, 46930.84375, 45817.8984375, 45082.625, 44712.23046875, 45136.64453125, 44772.75390625, 43164.41796875, 42501.86328125, 42460.30078125, 42481.0078125, 40491.328125, 39963.484375, 39447.89453125, 40228.34375, 38211.0234375, 40201.7890625, 39416.31640625, 36628.77734375, 36761.75390625, 37630.86328125, 37858.0546875, 35433.07421875, 36139.46484375, 37011.3984375, 34697.28125, 36198.68359375, 34586.16796875, 33212.4140625, 34610.8984375, 34618.6171875, 32463.458984375, 32402.0, 33882.94921875, 32118.7265625, 31199.62109375, 30060.642578125, 30463.2421875, 29822.1953125, 29694.126953125, 31256.478515625, 28586.34765625, 28829.193359375, 27812.556640625, 29595.794921875, 27090.515625, 31575.8046875, 32938.2421875, 28560.6796875, 28116.38671875, 25909.162109375, 26189.30859375, 24811.82421875, 24667.14453125, 25124.8984375, 27953.9296875, 27813.34765625, 25177.279296875, 26428.21875, 27400.869140625, 27269.369140625, 25591.94140625, 27366.966796875, 24547.8671875, 24011.79296875, 33498.4453125, 29893.744140625, 25655.974609375, 26120.3125, 24497.322265625, 23734.734375, 23257.162109375, 22522.521484375, 22484.41796875, 22226.064453125, 22152.783203125, 23683.677734375, 22123.896484375, 21504.9453125, 19593.576171875, 20097.822265625, 21641.35546875, 21042.498046875, 20249.3671875, 22826.0625, 22865.71484375, 21356.6953125, 18715.734375, 19160.7578125, 20198.5625, 18345.4765625, 19927.109375, 18770.890625, 19359.271484375, 17675.25, 20586.921875, 24884.453125, 21406.33984375, 18404.294921875, 18419.724609375, 18862.73828125, 16852.96875, 17785.443359375, 16188.6640625, 17168.6875, 17356.892578125, 15720.158203125, 16750.71875, 17356.15234375, 14854.0888671875, 15740.3671875, 14763.865234375, 16557.478515625, 14421.755859375, 18536.9140625, 21901.998046875, 21083.56640625, 16500.416015625, 17455.056640625], \\\"yaxis\\\": \\\"y\\\"}],\\n\",\n       \"                        {\\\"height\\\": 600, \\\"legend\\\": {\\\"tracegroupgap\\\": 0}, \\\"margin\\\": {\\\"t\\\": 60}, \\\"template\\\": {\\\"data\\\": {\\\"bar\\\": [{\\\"error_x\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}, \\\"error_y\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}, \\\"marker\\\": {\\\"line\\\": {\\\"color\\\": \\\"#E5ECF6\\\", \\\"width\\\": 0.5}}, \\\"type\\\": \\\"bar\\\"}], \\\"barpolar\\\": [{\\\"marker\\\": {\\\"line\\\": {\\\"color\\\": \\\"#E5ECF6\\\", \\\"width\\\": 0.5}}, \\\"type\\\": \\\"barpolar\\\"}], \\\"carpet\\\": [{\\\"aaxis\\\": {\\\"endlinecolor\\\": \\\"#2a3f5f\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"minorgridcolor\\\": \\\"white\\\", \\\"startlinecolor\\\": \\\"#2a3f5f\\\"}, \\\"baxis\\\": {\\\"endlinecolor\\\": \\\"#2a3f5f\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"minorgridcolor\\\": \\\"white\\\", \\\"startlinecolor\\\": \\\"#2a3f5f\\\"}, \\\"type\\\": \\\"carpet\\\"}], \\\"choropleth\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"type\\\": \\\"choropleth\\\"}], \\\"contour\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"contour\\\"}], \\\"contourcarpet\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"type\\\": \\\"contourcarpet\\\"}], \\\"heatmap\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"heatmap\\\"}], \\\"heatmapgl\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"heatmapgl\\\"}], \\\"histogram\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"histogram\\\"}], \\\"histogram2d\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"histogram2d\\\"}], \\\"histogram2dcontour\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"histogram2dcontour\\\"}], \\\"mesh3d\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"type\\\": \\\"mesh3d\\\"}], \\\"parcoords\\\": [{\\\"line\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"parcoords\\\"}], \\\"scatter\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatter\\\"}], \\\"scatter3d\\\": [{\\\"line\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatter3d\\\"}], \\\"scattercarpet\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattercarpet\\\"}], \\\"scattergeo\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattergeo\\\"}], \\\"scattergl\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattergl\\\"}], \\\"scattermapbox\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattermapbox\\\"}], \\\"scatterpolar\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatterpolar\\\"}], \\\"scatterpolargl\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatterpolargl\\\"}], \\\"scatterternary\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatterternary\\\"}], \\\"surface\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"surface\\\"}], \\\"table\\\": [{\\\"cells\\\": {\\\"fill\\\": {\\\"color\\\": \\\"#EBF0F8\\\"}, \\\"line\\\": {\\\"color\\\": \\\"white\\\"}}, \\\"header\\\": {\\\"fill\\\": {\\\"color\\\": \\\"#C8D4E3\\\"}, \\\"line\\\": {\\\"color\\\": \\\"white\\\"}}, \\\"type\\\": \\\"table\\\"}]}, \\\"layout\\\": {\\\"annotationdefaults\\\": {\\\"arrowcolor\\\": \\\"#2a3f5f\\\", \\\"arrowhead\\\": 0, \\\"arrowwidth\\\": 1}, \\\"colorscale\\\": {\\\"diverging\\\": [[0, \\\"#8e0152\\\"], [0.1, \\\"#c51b7d\\\"], [0.2, \\\"#de77ae\\\"], [0.3, \\\"#f1b6da\\\"], [0.4, \\\"#fde0ef\\\"], [0.5, \\\"#f7f7f7\\\"], [0.6, \\\"#e6f5d0\\\"], [0.7, \\\"#b8e186\\\"], [0.8, \\\"#7fbc41\\\"], [0.9, \\\"#4d9221\\\"], [1, \\\"#276419\\\"]], \\\"sequential\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"sequentialminus\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]]}, \\\"colorway\\\": [\\\"#636efa\\\", \\\"#EF553B\\\", \\\"#00cc96\\\", \\\"#ab63fa\\\", \\\"#FFA15A\\\", \\\"#19d3f3\\\", \\\"#FF6692\\\", \\\"#B6E880\\\", \\\"#FF97FF\\\", \\\"#FECB52\\\"], \\\"font\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}, \\\"geo\\\": {\\\"bgcolor\\\": \\\"white\\\", \\\"lakecolor\\\": \\\"white\\\", \\\"landcolor\\\": \\\"#E5ECF6\\\", \\\"showlakes\\\": true, \\\"showland\\\": true, \\\"subunitcolor\\\": \\\"white\\\"}, \\\"hoverlabel\\\": {\\\"align\\\": \\\"left\\\"}, \\\"hovermode\\\": \\\"closest\\\", \\\"mapbox\\\": {\\\"style\\\": \\\"light\\\"}, \\\"paper_bgcolor\\\": \\\"white\\\", \\\"plot_bgcolor\\\": \\\"#E5ECF6\\\", \\\"polar\\\": {\\\"angularaxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}, \\\"bgcolor\\\": \\\"#E5ECF6\\\", \\\"radialaxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}}, \\\"scene\\\": {\\\"xaxis\\\": {\\\"backgroundcolor\\\": \\\"#E5ECF6\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"gridwidth\\\": 2, \\\"linecolor\\\": \\\"white\\\", \\\"showbackground\\\": true, \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\"}, \\\"yaxis\\\": {\\\"backgroundcolor\\\": \\\"#E5ECF6\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"gridwidth\\\": 2, \\\"linecolor\\\": \\\"white\\\", \\\"showbackground\\\": true, \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\"}, \\\"zaxis\\\": {\\\"backgroundcolor\\\": \\\"#E5ECF6\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"gridwidth\\\": 2, \\\"linecolor\\\": \\\"white\\\", \\\"showbackground\\\": true, \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\"}}, \\\"shapedefaults\\\": {\\\"line\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}}, \\\"ternary\\\": {\\\"aaxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}, \\\"baxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}, \\\"bgcolor\\\": \\\"#E5ECF6\\\", \\\"caxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}}, \\\"title\\\": {\\\"x\\\": 0.05}, \\\"xaxis\\\": {\\\"automargin\\\": true, \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\", \\\"zerolinewidth\\\": 2}, \\\"yaxis\\\": {\\\"automargin\\\": true, \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\", \\\"zerolinewidth\\\": 2}}}, \\\"xaxis\\\": {\\\"anchor\\\": \\\"y\\\", \\\"domain\\\": [0.0, 0.98], \\\"title\\\": {\\\"text\\\": \\\"total_iters\\\"}}, \\\"yaxis\\\": {\\\"anchor\\\": \\\"x\\\", \\\"domain\\\": [0.0, 1.0], \\\"title\\\": {\\\"text\\\": \\\"train_mse_loss\\\"}}},\\n\",\n       \"                        {\\\"responsive\\\": true}\\n\",\n       \"                    ).then(function(){\\n\",\n       \"                            \\n\",\n       \"var gd = document.getElementById('79408a4c-299c-4e4e-819e-5d069cf07c41');\\n\",\n       \"var x = new MutationObserver(function (mutations, observer) {{\\n\",\n       \"        var display = window.getComputedStyle(gd).display;\\n\",\n       \"        if (!display || display === 'none') {{\\n\",\n       \"            console.log([gd, 'removed!']);\\n\",\n       \"            Plotly.purge(gd);\\n\",\n       \"            observer.disconnect();\\n\",\n       \"        }}\\n\",\n       \"}});\\n\",\n       \"\\n\",\n       \"// Listen for the removal of the full notebook cells\\n\",\n       \"var notebookContainer = gd.closest('#notebook-container');\\n\",\n       \"if (notebookContainer) {{\\n\",\n       \"    x.observe(notebookContainer, {childList: true});\\n\",\n       \"}}\\n\",\n       \"\\n\",\n       \"// Listen for the clearing of the current output cell\\n\",\n       \"var outputEl = gd.closest('.output');\\n\",\n       \"if (outputEl) {{\\n\",\n       \"    x.observe(outputEl, {childList: true});\\n\",\n       \"}}\\n\",\n       \"\\n\",\n       \"                        })\\n\",\n       \"                };\\n\",\n       \"                });\\n\",\n       \"            </script>\\n\",\n       \"        </div>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"fig = px.line(trainer.training_info, x='total_iters', y='train_mse_loss')\\n\",\n    \"fig.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 19,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"application/vnd.plotly.v1+json\": {\n       \"config\": {\n        \"plotlyServerURL\": \"https://plot.ly\"\n       },\n       \"data\": [\n        {\n         \"hoverlabel\": {\n          \"namelength\": 0\n         },\n         \"hovertemplate\": \"total_iters=%{x}<br>val_mse=%{y}\",\n         \"legendgroup\": \"\",\n         \"line\": {\n          \"color\": \"#636efa\",\n          \"dash\": \"solid\"\n         },\n         \"mode\": \"lines\",\n         \"name\": \"\",\n         \"showlegend\": false,\n         \"type\": \"scatter\",\n         \"x\": [\n          1,\n          2,\n          3,\n          4,\n          5,\n          6,\n          7,\n          8,\n          9,\n          10,\n          11,\n          12,\n          13,\n          14,\n          15,\n          16,\n          17,\n          18,\n          19,\n          20,\n          21,\n          22,\n          23,\n          24,\n          25,\n          26,\n          27,\n          28,\n          29,\n          30,\n          31,\n          32,\n          33,\n          34,\n          35,\n          36,\n          37,\n          38,\n          39,\n          40,\n          41,\n          42,\n          43,\n          44,\n          45,\n          46,\n          47,\n          48,\n          49,\n          50,\n          51,\n          52,\n          53,\n          54,\n          55,\n          56,\n          57,\n          58,\n          59,\n          60,\n          61,\n          62,\n          63,\n          64,\n          65,\n          66,\n          67,\n          68,\n          69,\n          70,\n          71,\n          72,\n          73,\n          74,\n          75,\n          76,\n          77,\n          78,\n          79,\n          80,\n          81,\n          82,\n          83,\n          84,\n          85,\n          86,\n          87,\n          88,\n          89,\n          90,\n          91,\n          92,\n          93,\n          94,\n          95,\n          96,\n          97,\n          98,\n          99,\n          100,\n          101,\n          102,\n          103,\n          104,\n          105,\n          106,\n          107,\n          108,\n          109,\n          110,\n          111,\n          112,\n          113,\n          114,\n          115,\n          116,\n          117,\n          118,\n          119,\n          120,\n          121,\n          122,\n          123,\n          124,\n          125,\n          126,\n          127,\n          128,\n          129,\n          130,\n          131,\n          132,\n          133,\n          134,\n          135,\n          136,\n          137,\n          138,\n          139,\n          140,\n          141,\n          142,\n          143,\n          144,\n          145,\n          146,\n          147,\n          148,\n          149,\n          150,\n          151,\n          152,\n          153,\n          154,\n          155,\n          156,\n          157,\n          158,\n          159,\n          160,\n          161,\n          162,\n          163,\n          164,\n          165,\n          166,\n          167,\n          168,\n          169,\n          170,\n          171,\n          172,\n          173,\n          174,\n          175,\n          176,\n          177,\n          178,\n          179,\n          180,\n          181,\n          182,\n          183,\n          184,\n          185,\n          186,\n          187,\n          188,\n          189,\n          190,\n          191,\n          192,\n          193,\n          194,\n          195,\n          196,\n          197,\n          198,\n          199,\n          200,\n          201,\n          202,\n          203,\n          204,\n          205,\n          206,\n          207,\n          208,\n          209,\n          210,\n          211,\n          212,\n          213,\n          214,\n          215,\n          216,\n          217,\n          218,\n          219,\n          220,\n          221,\n          222,\n          223,\n          224,\n          225,\n          226,\n          227,\n          228,\n          229,\n          230,\n          231,\n          232,\n          233,\n          234,\n          235,\n          236,\n          237,\n          238,\n          239,\n          240,\n          241,\n          242,\n          243,\n          244,\n          245,\n          246,\n          247,\n          248,\n          249,\n          250,\n          251,\n          252,\n          253,\n          254,\n          255,\n          256,\n          257,\n          258,\n          259,\n          260,\n          261,\n          262,\n          263,\n          264,\n          265,\n          266,\n          267,\n          268,\n          269,\n          270,\n          271,\n          272,\n          273,\n          274,\n          275,\n          276,\n          277,\n          278,\n          279,\n          280,\n          281,\n          282,\n          283,\n          284,\n          285,\n          286,\n          287,\n          288,\n          289,\n          290,\n          291,\n          292,\n          293,\n          294,\n          295,\n          296,\n          297,\n          298,\n          299,\n          300,\n          301,\n          302,\n          303,\n          304,\n          305,\n          306,\n          307,\n          308,\n          309,\n          310,\n          311,\n          312,\n          313,\n          314,\n          315,\n          316,\n          317,\n          318,\n          319,\n          320,\n          321,\n          322,\n          323,\n          324,\n          325,\n          326,\n          327,\n          328,\n          329,\n          330,\n          331,\n          332,\n          333,\n          334,\n          335,\n          336,\n          337,\n          338,\n          339,\n          340,\n          341,\n          342,\n          343,\n          344,\n          345,\n          346,\n          347,\n          348,\n          349,\n          350,\n          351,\n          352,\n          353,\n          354,\n          355,\n          356,\n          357,\n          358,\n          359,\n          360,\n          361,\n          362,\n          363,\n          364,\n          365,\n          366,\n          367,\n          368,\n          369,\n          370,\n          371,\n          372,\n          373,\n          374,\n          375,\n          376,\n          377,\n          378,\n          379,\n          380,\n          381,\n          382,\n          383,\n          384,\n          385,\n          386,\n          387,\n          388,\n          389,\n          390,\n          391,\n          392,\n          393,\n          394,\n          395,\n          396,\n          397,\n          398,\n          399,\n          400,\n          401,\n          402,\n          403,\n          404,\n          405,\n          406,\n          407,\n          408,\n          409,\n          410,\n          411,\n          412,\n          413,\n          414,\n          415,\n          416,\n          417,\n          418,\n          419,\n          420,\n          421,\n          422,\n          423,\n          424,\n          425,\n          426,\n          427,\n          428,\n          429,\n          430,\n          431,\n          432,\n          433,\n          434,\n          435,\n          436,\n          437,\n          438,\n          439,\n          440,\n          441,\n          442,\n          443,\n          444,\n          445,\n          446,\n          447,\n          448,\n          449,\n          450,\n          451,\n          452,\n          453,\n          454,\n          455,\n          456,\n          457,\n          458,\n          459,\n          460,\n          461,\n          462,\n          463\n         ],\n         \"xaxis\": \"x\",\n         \"y\": [\n          386787.8125,\n          386543.0625,\n          386497.71875,\n          386365.5,\n          386139.6875,\n          385870.1875,\n          385675.25,\n          385433.78125,\n          385189.09375,\n          385084.1875,\n          384796.8125,\n          384168.3125,\n          383854.875,\n          383289.8125,\n          382239.46875,\n          381429.75,\n          380727.1875,\n          378723.71875,\n          377787.8125,\n          376910.625,\n          376003.90625,\n          374749.03125,\n          373729.125,\n          372612.15625,\n          371634.625,\n          370799.5625,\n          369393.875,\n          367913.15625,\n          366838.0625,\n          366929.25,\n          365252.8125,\n          364263.78125,\n          364510.28125,\n          365759.90625,\n          364530.625,\n          360668.59375,\n          358880.0625,\n          360172.8125,\n          359584.46875,\n          357899.53125,\n          357236.65625,\n          357778.09375,\n          356548.71875,\n          354112.03125,\n          353187.375,\n          352968.65625,\n          351565.09375,\n          350374.84375,\n          351327.1875,\n          351616.3125,\n          348268.5,\n          343090.40625,\n          344594.03125,\n          349805.28125,\n          346603.6875,\n          340808.53125,\n          338115.8125,\n          343130.46875,\n          346934.84375,\n          345455.90625,\n          336925.15625,\n          331924.0625,\n          334357.71875,\n          340428.25,\n          340015.65625,\n          337628.65625,\n          334822.4375,\n          330128.625,\n          331315.90625,\n          333272.40625,\n          334360.625,\n          327301.84375,\n          321044.875,\n          321473.125,\n          327284.59375,\n          323690.59375,\n          315903.5625,\n          313767.4375,\n          317781.71875,\n          322580.875,\n          319431.65625,\n          317603.71875,\n          319447.375,\n          317391.65625,\n          312050.9375,\n          311437.78125,\n          313684.96875,\n          310196.8125,\n          304695.96875,\n          304319.40625,\n          306523.71875,\n          313233.21875,\n          308619.90625,\n          297105.9375,\n          291661.40625,\n          296300,\n          301639.1875,\n          297567.34375,\n          294042.8125,\n          293507.125,\n          297037.03125,\n          295263.53125,\n          296058.84375,\n          299196.375,\n          300075.625,\n          293336.65625,\n          288812.71875,\n          290695.6875,\n          284715.5,\n          278848.1875,\n          278356.1875,\n          283749.53125,\n          285549.15625,\n          280129.71875,\n          276439.15625,\n          274530.84375,\n          266157.28125,\n          264551.84375,\n          268014.75,\n          266585,\n          261964.328125,\n          263242.125,\n          264601.8125,\n          265849.5625,\n          251771.625,\n          240870.3125,\n          248011.5625,\n          265166.28125,\n          272177.375,\n          262609.4375,\n          256146.984375,\n          254956.671875,\n          249574.140625,\n          258427.4375,\n          258236.40625,\n          239800.78125,\n          231485.1875,\n          234991.53125,\n          250914.546875,\n          258363,\n          249852.5,\n          241633.5625,\n          242671.09375,\n          239848.734375,\n          233675.890625,\n          235843.28125,\n          240934.9375,\n          238166.3125,\n          234690.203125,\n          238771.765625,\n          247378.765625,\n          239203.90625,\n          232278.046875,\n          233679.203125,\n          233396.5625,\n          237334.796875,\n          242410.546875,\n          231940.84375,\n          210209.28125,\n          207032.78125,\n          218207.09375,\n          230545.515625,\n          228228.09375,\n          227096.859375,\n          222200.9375,\n          210833.859375,\n          213169.875,\n          219414.234375,\n          223991.609375,\n          217507.28125,\n          204107.421875,\n          197926.046875,\n          200302.046875,\n          203408.40625,\n          211888.78125,\n          218922.796875,\n          210021.703125,\n          194378.75,\n          198560.890625,\n          207483.0625,\n          201976.828125,\n          199718.4375,\n          192065.8125,\n          182777.8125,\n          185159.734375,\n          189952.09375,\n          191765.671875,\n          188199.328125,\n          178413.8125,\n          164713.109375,\n          168736.09375,\n          179980.328125,\n          175835.984375,\n          163223.59375,\n          155511.203125,\n          161095.265625,\n          178625.96875,\n          194621.484375,\n          181523.671875,\n          173990.71875,\n          172403.984375,\n          181792.65625,\n          183354.65625,\n          184082.25,\n          181342.859375,\n          173786.875,\n          175770.15625,\n          180423.671875,\n          171470.984375,\n          159991.03125,\n          163847.78125,\n          163746.546875,\n          161033.84375,\n          155608.265625,\n          157525.03125,\n          167982.71875,\n          173238.046875,\n          170710.09375,\n          160856.40625,\n          158672.421875,\n          162122.328125,\n          169998.40625,\n          162418.59375,\n          157297.234375,\n          157137.5625,\n          158729.921875,\n          152525.234375,\n          154985.484375,\n          161095.8125,\n          161213.40625,\n          147839.21875,\n          143986.34375,\n          153226.828125,\n          164211.109375,\n          151668.296875,\n          132267.203125,\n          122960.1171875,\n          127880.8671875,\n          150328.671875,\n          159936.03125,\n          154636.75,\n          147251.390625,\n          130810.484375,\n          130713.3515625,\n          144151.375,\n          144335,\n          130922.359375,\n          122576.1953125,\n          113241.3984375,\n          112659.578125,\n          119665.765625,\n          122372.796875,\n          124937.6875,\n          124337.1640625,\n          103949.3515625,\n          105575.5703125,\n          102472.875,\n          102097.53125,\n          107227.1796875,\n          92204.796875,\n          105529.6640625,\n          122883.0625,\n          120764.671875,\n          96947.5703125,\n          98957.75,\n          122348.171875,\n          132045.125,\n          117291.671875,\n          102027.75,\n          91882.7265625,\n          106210.7109375,\n          121790.2265625,\n          102866.5078125,\n          77988.5,\n          71394.140625,\n          86316.8515625,\n          110238.7109375,\n          104261.4921875,\n          76679.75,\n          61626.92578125,\n          63095.30078125,\n          80660.5859375,\n          94679.375,\n          104871.546875,\n          109982.765625,\n          101199.4296875,\n          81611.8828125,\n          73167.953125,\n          72158.4921875,\n          85044.453125,\n          100036.359375,\n          92260.6171875,\n          75003.6015625,\n          64498.51953125,\n          62005.57421875,\n          67125.5546875,\n          77316.75,\n          87800.1640625,\n          86503.3203125,\n          88912.390625,\n          91477.5,\n          83241.5234375,\n          70543.3046875,\n          67067.234375,\n          69797.1796875,\n          75098.2265625,\n          77960.0859375,\n          79119.515625,\n          82169.1875,\n          69545.1171875,\n          65449.53515625,\n          67314.171875,\n          65578.375,\n          62161.6015625,\n          69583.359375,\n          84302.8671875,\n          88738.6640625,\n          79670.78125,\n          76726.2578125,\n          77149.3203125,\n          64972.328125,\n          65271.73046875,\n          64295.265625,\n          66467.609375,\n          59752.15234375,\n          60855.75,\n          59110.71484375,\n          57841.875,\n          60997.48046875,\n          57687.734375,\n          54306.984375,\n          56258.609375,\n          58564.1796875,\n          62050.15625,\n          66529.78125,\n          58201.8359375,\n          48393.6015625,\n          52191.8828125,\n          54121.65234375,\n          56247.3984375,\n          58358.109375,\n          58510.76171875,\n          53185.65234375,\n          44086.6640625,\n          48142.88671875,\n          58364.51953125,\n          58133.06640625,\n          48568.8125,\n          51049.1796875,\n          66140.7109375,\n          71557.8125,\n          65455.69140625,\n          48510.48828125,\n          45373.671875,\n          54028.28125,\n          55728.55078125,\n          42165.44140625,\n          40029.125,\n          42266.24609375,\n          53020.56640625,\n          54623.890625,\n          48799.5625,\n          36435.46875,\n          28853.783203125,\n          29831.87109375,\n          37490.21484375,\n          50341.55859375,\n          49569.4921875,\n          32959.81640625,\n          27776.681640625,\n          28847.892578125,\n          44013.33984375,\n          48160.453125,\n          49535.90234375,\n          43692.34765625,\n          30025.216796875,\n          23967.73046875,\n          26287.015625,\n          34707.015625,\n          40108.859375,\n          42002.12890625,\n          33847.734375,\n          31001.02734375,\n          36386.90625,\n          37928.09375,\n          33685.27734375,\n          30300.26953125,\n          31935.40625,\n          30665.359375,\n          30796.40625,\n          33831.3515625,\n          34789.80078125,\n          36065.546875,\n          30741.712890625,\n          28959.859375,\n          29712.900390625,\n          31131.0078125,\n          34069.0390625,\n          29775.44140625,\n          28368,\n          29239.9765625,\n          42510.91796875,\n          46171.37890625,\n          34008.890625,\n          19240.94921875,\n          21707.216796875,\n          19677.564453125,\n          27557.265625,\n          37403.55859375,\n          40676.4375,\n          36610.1953125,\n          28603.98828125,\n          23734.34375,\n          29791.88671875,\n          40298.2421875,\n          39465.01171875,\n          31752.619140625,\n          27708.11328125,\n          35673.3828125,\n          40536.515625,\n          35593.015625,\n          26966.87109375,\n          26590.142578125,\n          30422,\n          33354.33984375,\n          35176.4765625,\n          23779.408203125,\n          20908.5,\n          21142.3359375,\n          21788.849609375,\n          26421.75390625,\n          28145.931640625,\n          25236.234375,\n          21597.01171875,\n          24093.314453125,\n          27313.673828125,\n          31519.427734375,\n          25689.9296875,\n          20700.208984375,\n          24062.076171875,\n          19670.84765625,\n          19584.541015625,\n          30060.01171875,\n          32644.837890625,\n          20166.26953125,\n          17822.80078125,\n          20540.2109375,\n          34605.43359375,\n          32238.703125,\n          18659.49609375,\n          17438.44921875,\n          18509.216796875,\n          22184.287109375,\n          25793.310546875,\n          23147.259765625,\n          20061.591796875,\n          18019.361328125,\n          22074.388671875,\n          28142.87890625,\n          30466.5703125,\n          27220.484375,\n          23831.708984375,\n          22597.095703125\n         ],\n         \"yaxis\": \"y\"\n        }\n       ],\n       \"layout\": {\n        \"autosize\": true,\n        \"legend\": {\n         \"tracegroupgap\": 0\n        },\n        \"margin\": {\n         \"t\": 60\n        },\n        \"template\": {\n         \"data\": {\n          \"bar\": [\n           {\n            \"error_x\": {\n             \"color\": \"#2a3f5f\"\n            },\n            \"error_y\": {\n             \"color\": \"#2a3f5f\"\n            },\n            \"marker\": {\n             \"line\": {\n              \"color\": \"#E5ECF6\",\n              \"width\": 0.5\n             }\n            },\n            \"type\": \"bar\"\n           }\n          ],\n          \"barpolar\": [\n           {\n            \"marker\": {\n             \"line\": {\n              \"color\": \"#E5ECF6\",\n              \"width\": 0.5\n             }\n            },\n            \"type\": \"barpolar\"\n           }\n          ],\n          \"carpet\": [\n           {\n            \"aaxis\": {\n             \"endlinecolor\": \"#2a3f5f\",\n             \"gridcolor\": \"white\",\n             \"linecolor\": \"white\",\n             \"minorgridcolor\": \"white\",\n             \"startlinecolor\": \"#2a3f5f\"\n            },\n            \"baxis\": {\n             \"endlinecolor\": \"#2a3f5f\",\n             \"gridcolor\": \"white\",\n             \"linecolor\": \"white\",\n             \"minorgridcolor\": \"white\",\n             \"startlinecolor\": \"#2a3f5f\"\n            },\n            \"type\": \"carpet\"\n           }\n          ],\n          \"choropleth\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"type\": \"choropleth\"\n           }\n          ],\n          \"contour\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"contour\"\n           }\n          ],\n          \"contourcarpet\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"type\": \"contourcarpet\"\n           }\n          ],\n          \"heatmap\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"heatmap\"\n           }\n          ],\n          \"heatmapgl\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"heatmapgl\"\n           }\n          ],\n          \"histogram\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"histogram\"\n           }\n          ],\n          \"histogram2d\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"histogram2d\"\n           }\n          ],\n          \"histogram2dcontour\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"histogram2dcontour\"\n           }\n          ],\n          \"mesh3d\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"type\": \"mesh3d\"\n           }\n          ],\n          \"parcoords\": [\n           {\n            \"line\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"parcoords\"\n           }\n          ],\n          \"scatter\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatter\"\n           }\n          ],\n          \"scatter3d\": [\n           {\n            \"line\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatter3d\"\n           }\n          ],\n          \"scattercarpet\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattercarpet\"\n           }\n          ],\n          \"scattergeo\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattergeo\"\n           }\n          ],\n          \"scattergl\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattergl\"\n           }\n          ],\n          \"scattermapbox\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattermapbox\"\n           }\n          ],\n          \"scatterpolar\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatterpolar\"\n           }\n          ],\n          \"scatterpolargl\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatterpolargl\"\n           }\n          ],\n          \"scatterternary\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatterternary\"\n           }\n          ],\n          \"surface\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"surface\"\n           }\n          ],\n          \"table\": [\n           {\n            \"cells\": {\n             \"fill\": {\n              \"color\": \"#EBF0F8\"\n             },\n             \"line\": {\n              \"color\": \"white\"\n             }\n            },\n            \"header\": {\n             \"fill\": {\n              \"color\": \"#C8D4E3\"\n             },\n             \"line\": {\n              \"color\": \"white\"\n             }\n            },\n            \"type\": \"table\"\n           }\n          ]\n         },\n         \"layout\": {\n          \"annotationdefaults\": {\n           \"arrowcolor\": \"#2a3f5f\",\n           \"arrowhead\": 0,\n           \"arrowwidth\": 1\n          },\n          \"colorscale\": {\n           \"diverging\": [\n            [\n             0,\n             \"#8e0152\"\n            ],\n            [\n             0.1,\n             \"#c51b7d\"\n            ],\n            [\n             0.2,\n             \"#de77ae\"\n            ],\n            [\n             0.3,\n             \"#f1b6da\"\n            ],\n            [\n             0.4,\n             \"#fde0ef\"\n            ],\n            [\n             0.5,\n             \"#f7f7f7\"\n            ],\n            [\n             0.6,\n             \"#e6f5d0\"\n            ],\n            [\n             0.7,\n             \"#b8e186\"\n            ],\n            [\n             0.8,\n             \"#7fbc41\"\n            ],\n            [\n             0.9,\n             \"#4d9221\"\n            ],\n            [\n             1,\n             \"#276419\"\n            ]\n           ],\n           \"sequential\": [\n            [\n             0,\n             \"#0d0887\"\n            ],\n            [\n             0.1111111111111111,\n             \"#46039f\"\n            ],\n            [\n             0.2222222222222222,\n             \"#7201a8\"\n            ],\n            [\n             0.3333333333333333,\n             \"#9c179e\"\n            ],\n            [\n             0.4444444444444444,\n             \"#bd3786\"\n            ],\n            [\n             0.5555555555555556,\n             \"#d8576b\"\n            ],\n            [\n             0.6666666666666666,\n             \"#ed7953\"\n            ],\n            [\n             0.7777777777777778,\n             \"#fb9f3a\"\n            ],\n            [\n             0.8888888888888888,\n             \"#fdca26\"\n            ],\n            [\n             1,\n             \"#f0f921\"\n            ]\n           ],\n           \"sequentialminus\": [\n            [\n             0,\n             \"#0d0887\"\n            ],\n            [\n             0.1111111111111111,\n             \"#46039f\"\n            ],\n            [\n             0.2222222222222222,\n             \"#7201a8\"\n            ],\n            [\n             0.3333333333333333,\n             \"#9c179e\"\n            ],\n            [\n             0.4444444444444444,\n             \"#bd3786\"\n            ],\n            [\n             0.5555555555555556,\n             \"#d8576b\"\n            ],\n            [\n             0.6666666666666666,\n             \"#ed7953\"\n            ],\n            [\n             0.7777777777777778,\n             \"#fb9f3a\"\n            ],\n            [\n             0.8888888888888888,\n             \"#fdca26\"\n            ],\n            [\n             1,\n             \"#f0f921\"\n            ]\n           ]\n          },\n          \"colorway\": [\n           \"#636efa\",\n           \"#EF553B\",\n           \"#00cc96\",\n           \"#ab63fa\",\n           \"#FFA15A\",\n           \"#19d3f3\",\n           \"#FF6692\",\n           \"#B6E880\",\n           \"#FF97FF\",\n           \"#FECB52\"\n          ],\n          \"font\": {\n           \"color\": \"#2a3f5f\"\n          },\n          \"geo\": {\n           \"bgcolor\": \"white\",\n           \"lakecolor\": \"white\",\n           \"landcolor\": \"#E5ECF6\",\n           \"showlakes\": true,\n           \"showland\": true,\n           \"subunitcolor\": \"white\"\n          },\n          \"hoverlabel\": {\n           \"align\": \"left\"\n          },\n          \"hovermode\": \"closest\",\n          \"mapbox\": {\n           \"style\": \"light\"\n          },\n          \"paper_bgcolor\": \"white\",\n          \"plot_bgcolor\": \"#E5ECF6\",\n          \"polar\": {\n           \"angularaxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           },\n           \"bgcolor\": \"#E5ECF6\",\n           \"radialaxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           }\n          },\n          \"scene\": {\n           \"xaxis\": {\n            \"backgroundcolor\": \"#E5ECF6\",\n            \"gridcolor\": \"white\",\n            \"gridwidth\": 2,\n            \"linecolor\": \"white\",\n            \"showbackground\": true,\n            \"ticks\": \"\",\n            \"zerolinecolor\": \"white\"\n           },\n           \"yaxis\": {\n            \"backgroundcolor\": \"#E5ECF6\",\n            \"gridcolor\": \"white\",\n            \"gridwidth\": 2,\n            \"linecolor\": \"white\",\n            \"showbackground\": true,\n            \"ticks\": \"\",\n            \"zerolinecolor\": \"white\"\n           },\n           \"zaxis\": {\n            \"backgroundcolor\": \"#E5ECF6\",\n            \"gridcolor\": \"white\",\n            \"gridwidth\": 2,\n            \"linecolor\": \"white\",\n            \"showbackground\": true,\n            \"ticks\": \"\",\n            \"zerolinecolor\": \"white\"\n           }\n          },\n          \"shapedefaults\": {\n           \"line\": {\n            \"color\": \"#2a3f5f\"\n           }\n          },\n          \"ternary\": {\n           \"aaxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           },\n           \"baxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           },\n           \"bgcolor\": \"#E5ECF6\",\n           \"caxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           }\n          },\n          \"title\": {\n           \"x\": 0.05\n          },\n          \"xaxis\": {\n           \"automargin\": true,\n           \"gridcolor\": \"white\",\n           \"linecolor\": \"white\",\n           \"ticks\": \"\",\n           \"zerolinecolor\": \"white\",\n           \"zerolinewidth\": 2\n          },\n          \"yaxis\": {\n           \"automargin\": true,\n           \"gridcolor\": \"white\",\n           \"linecolor\": \"white\",\n           \"ticks\": \"\",\n           \"zerolinecolor\": \"white\",\n           \"zerolinewidth\": 2\n          }\n         }\n        },\n        \"xaxis\": {\n         \"anchor\": \"y\",\n         \"autorange\": true,\n         \"domain\": [\n          0,\n          0.98\n         ],\n         \"range\": [\n          1,\n          463\n         ],\n         \"title\": {\n          \"text\": \"total_iters\"\n         },\n         \"type\": \"linear\"\n        },\n        \"yaxis\": {\n         \"anchor\": \"x\",\n         \"autorange\": true,\n         \"domain\": [\n          0,\n          1\n         ],\n         \"range\": [\n          -3080.9598524305547,\n          407307.22157118056\n         ],\n         \"title\": {\n          \"text\": \"val_mse\"\n         },\n         \"type\": \"linear\"\n        }\n       }\n      },\n      \"image/png\": \"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\",\n      \"text/html\": [\n       \"<div>\\n\",\n       \"        \\n\",\n       \"        \\n\",\n       \"            <div id=\\\"f164c161-7a84-4a75-bcfd-2666d97b0fdb\\\" class=\\\"plotly-graph-div\\\" style=\\\"height:600px; width:100%;\\\"></div>\\n\",\n       \"            <script type=\\\"text/javascript\\\">\\n\",\n       \"                require([\\\"plotly\\\"], function(Plotly) {\\n\",\n       \"                    window.PLOTLYENV=window.PLOTLYENV || {};\\n\",\n       \"                    \\n\",\n       \"                if (document.getElementById(\\\"f164c161-7a84-4a75-bcfd-2666d97b0fdb\\\")) {\\n\",\n       \"                    Plotly.newPlot(\\n\",\n       \"                        'f164c161-7a84-4a75-bcfd-2666d97b0fdb',\\n\",\n       \"                        [{\\\"hoverlabel\\\": {\\\"namelength\\\": 0}, \\\"hovertemplate\\\": \\\"total_iters=%{x}<br>val_mse=%{y}\\\", \\\"legendgroup\\\": \\\"\\\", \\\"line\\\": {\\\"color\\\": \\\"#636efa\\\", \\\"dash\\\": \\\"solid\\\"}, \\\"mode\\\": \\\"lines\\\", \\\"name\\\": \\\"\\\", \\\"showlegend\\\": false, \\\"type\\\": \\\"scatter\\\", \\\"x\\\": [1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27, 28, 29, 30, 31, 32, 33, 34, 35, 36, 37, 38, 39, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49, 50, 51, 52, 53, 54, 55, 56, 57, 58, 59, 60, 61, 62, 63, 64, 65, 66, 67, 68, 69, 70, 71, 72, 73, 74, 75, 76, 77, 78, 79, 80, 81, 82, 83, 84, 85, 86, 87, 88, 89, 90, 91, 92, 93, 94, 95, 96, 97, 98, 99, 100, 101, 102, 103, 104, 105, 106, 107, 108, 109, 110, 111, 112, 113, 114, 115, 116, 117, 118, 119, 120, 121, 122, 123, 124, 125, 126, 127, 128, 129, 130, 131, 132, 133, 134, 135, 136, 137, 138, 139, 140, 141, 142, 143, 144, 145, 146, 147, 148, 149, 150, 151, 152, 153, 154, 155, 156, 157, 158, 159, 160, 161, 162, 163, 164, 165, 166, 167, 168, 169, 170, 171, 172, 173, 174, 175, 176, 177, 178, 179, 180, 181, 182, 183, 184, 185, 186, 187, 188, 189, 190, 191, 192, 193, 194, 195, 196, 197, 198, 199, 200, 201, 202, 203, 204, 205, 206, 207, 208, 209, 210, 211, 212, 213, 214, 215, 216, 217, 218, 219, 220, 221, 222, 223, 224, 225, 226, 227, 228, 229, 230, 231, 232, 233, 234, 235, 236, 237, 238, 239, 240, 241, 242, 243, 244, 245, 246, 247, 248, 249, 250, 251, 252, 253, 254, 255, 256, 257, 258, 259, 260, 261, 262, 263, 264, 265, 266, 267, 268, 269, 270, 271, 272, 273, 274, 275, 276, 277, 278, 279, 280, 281, 282, 283, 284, 285, 286, 287, 288, 289, 290, 291, 292, 293, 294, 295, 296, 297, 298, 299, 300, 301, 302, 303, 304, 305, 306, 307, 308, 309, 310, 311, 312, 313, 314, 315, 316, 317, 318, 319, 320, 321, 322, 323, 324, 325, 326, 327, 328, 329, 330, 331, 332, 333, 334, 335, 336, 337, 338, 339, 340, 341, 342, 343, 344, 345, 346, 347, 348, 349, 350, 351, 352, 353, 354, 355, 356, 357, 358, 359, 360, 361, 362, 363, 364, 365, 366, 367, 368, 369, 370, 371, 372, 373, 374, 375, 376, 377, 378, 379, 380, 381, 382, 383, 384, 385, 386, 387, 388, 389, 390, 391, 392, 393, 394, 395, 396, 397, 398, 399, 400, 401, 402, 403, 404, 405, 406, 407, 408, 409, 410, 411, 412, 413, 414, 415, 416, 417, 418, 419, 420, 421, 422, 423, 424, 425, 426, 427, 428, 429, 430, 431, 432, 433, 434, 435, 436, 437, 438, 439, 440, 441, 442, 443, 444, 445, 446, 447, 448, 449, 450, 451, 452, 453, 454, 455, 456, 457, 458, 459, 460, 461, 462, 463], \\\"xaxis\\\": \\\"x\\\", \\\"y\\\": [386787.8125, 386543.0625, 386497.71875, 386365.5, 386139.6875, 385870.1875, 385675.25, 385433.78125, 385189.09375, 385084.1875, 384796.8125, 384168.3125, 383854.875, 383289.8125, 382239.46875, 381429.75, 380727.1875, 378723.71875, 377787.8125, 376910.625, 376003.90625, 374749.03125, 373729.125, 372612.15625, 371634.625, 370799.5625, 369393.875, 367913.15625, 366838.0625, 366929.25, 365252.8125, 364263.78125, 364510.28125, 365759.90625, 364530.625, 360668.59375, 358880.0625, 360172.8125, 359584.46875, 357899.53125, 357236.65625, 357778.09375, 356548.71875, 354112.03125, 353187.375, 352968.65625, 351565.09375, 350374.84375, 351327.1875, 351616.3125, 348268.5, 343090.40625, 344594.03125, 349805.28125, 346603.6875, 340808.53125, 338115.8125, 343130.46875, 346934.84375, 345455.90625, 336925.15625, 331924.0625, 334357.71875, 340428.25, 340015.65625, 337628.65625, 334822.4375, 330128.625, 331315.90625, 333272.40625, 334360.625, 327301.84375, 321044.875, 321473.125, 327284.59375, 323690.59375, 315903.5625, 313767.4375, 317781.71875, 322580.875, 319431.65625, 317603.71875, 319447.375, 317391.65625, 312050.9375, 311437.78125, 313684.96875, 310196.8125, 304695.96875, 304319.40625, 306523.71875, 313233.21875, 308619.90625, 297105.9375, 291661.40625, 296300.0, 301639.1875, 297567.34375, 294042.8125, 293507.125, 297037.03125, 295263.53125, 296058.84375, 299196.375, 300075.625, 293336.65625, 288812.71875, 290695.6875, 284715.5, 278848.1875, 278356.1875, 283749.53125, 285549.15625, 280129.71875, 276439.15625, 274530.84375, 266157.28125, 264551.84375, 268014.75, 266585.0, 261964.328125, 263242.125, 264601.8125, 265849.5625, 251771.625, 240870.3125, 248011.5625, 265166.28125, 272177.375, 262609.4375, 256146.984375, 254956.671875, 249574.140625, 258427.4375, 258236.40625, 239800.78125, 231485.1875, 234991.53125, 250914.546875, 258363.0, 249852.5, 241633.5625, 242671.09375, 239848.734375, 233675.890625, 235843.28125, 240934.9375, 238166.3125, 234690.203125, 238771.765625, 247378.765625, 239203.90625, 232278.046875, 233679.203125, 233396.5625, 237334.796875, 242410.546875, 231940.84375, 210209.28125, 207032.78125, 218207.09375, 230545.515625, 228228.09375, 227096.859375, 222200.9375, 210833.859375, 213169.875, 219414.234375, 223991.609375, 217507.28125, 204107.421875, 197926.046875, 200302.046875, 203408.40625, 211888.78125, 218922.796875, 210021.703125, 194378.75, 198560.890625, 207483.0625, 201976.828125, 199718.4375, 192065.8125, 182777.8125, 185159.734375, 189952.09375, 191765.671875, 188199.328125, 178413.8125, 164713.109375, 168736.09375, 179980.328125, 175835.984375, 163223.59375, 155511.203125, 161095.265625, 178625.96875, 194621.484375, 181523.671875, 173990.71875, 172403.984375, 181792.65625, 183354.65625, 184082.25, 181342.859375, 173786.875, 175770.15625, 180423.671875, 171470.984375, 159991.03125, 163847.78125, 163746.546875, 161033.84375, 155608.265625, 157525.03125, 167982.71875, 173238.046875, 170710.09375, 160856.40625, 158672.421875, 162122.328125, 169998.40625, 162418.59375, 157297.234375, 157137.5625, 158729.921875, 152525.234375, 154985.484375, 161095.8125, 161213.40625, 147839.21875, 143986.34375, 153226.828125, 164211.109375, 151668.296875, 132267.203125, 122960.1171875, 127880.8671875, 150328.671875, 159936.03125, 154636.75, 147251.390625, 130810.484375, 130713.3515625, 144151.375, 144335.0, 130922.359375, 122576.1953125, 113241.3984375, 112659.578125, 119665.765625, 122372.796875, 124937.6875, 124337.1640625, 103949.3515625, 105575.5703125, 102472.875, 102097.53125, 107227.1796875, 92204.796875, 105529.6640625, 122883.0625, 120764.671875, 96947.5703125, 98957.75, 122348.171875, 132045.125, 117291.671875, 102027.75, 91882.7265625, 106210.7109375, 121790.2265625, 102866.5078125, 77988.5, 71394.140625, 86316.8515625, 110238.7109375, 104261.4921875, 76679.75, 61626.92578125, 63095.30078125, 80660.5859375, 94679.375, 104871.546875, 109982.765625, 101199.4296875, 81611.8828125, 73167.953125, 72158.4921875, 85044.453125, 100036.359375, 92260.6171875, 75003.6015625, 64498.51953125, 62005.57421875, 67125.5546875, 77316.75, 87800.1640625, 86503.3203125, 88912.390625, 91477.5, 83241.5234375, 70543.3046875, 67067.234375, 69797.1796875, 75098.2265625, 77960.0859375, 79119.515625, 82169.1875, 69545.1171875, 65449.53515625, 67314.171875, 65578.375, 62161.6015625, 69583.359375, 84302.8671875, 88738.6640625, 79670.78125, 76726.2578125, 77149.3203125, 64972.328125, 65271.73046875, 64295.265625, 66467.609375, 59752.15234375, 60855.75, 59110.71484375, 57841.875, 60997.48046875, 57687.734375, 54306.984375, 56258.609375, 58564.1796875, 62050.15625, 66529.78125, 58201.8359375, 48393.6015625, 52191.8828125, 54121.65234375, 56247.3984375, 58358.109375, 58510.76171875, 53185.65234375, 44086.6640625, 48142.88671875, 58364.51953125, 58133.06640625, 48568.8125, 51049.1796875, 66140.7109375, 71557.8125, 65455.69140625, 48510.48828125, 45373.671875, 54028.28125, 55728.55078125, 42165.44140625, 40029.125, 42266.24609375, 53020.56640625, 54623.890625, 48799.5625, 36435.46875, 28853.783203125, 29831.87109375, 37490.21484375, 50341.55859375, 49569.4921875, 32959.81640625, 27776.681640625, 28847.892578125, 44013.33984375, 48160.453125, 49535.90234375, 43692.34765625, 30025.216796875, 23967.73046875, 26287.015625, 34707.015625, 40108.859375, 42002.12890625, 33847.734375, 31001.02734375, 36386.90625, 37928.09375, 33685.27734375, 30300.26953125, 31935.40625, 30665.359375, 30796.40625, 33831.3515625, 34789.80078125, 36065.546875, 30741.712890625, 28959.859375, 29712.900390625, 31131.0078125, 34069.0390625, 29775.44140625, 28368.0, 29239.9765625, 42510.91796875, 46171.37890625, 34008.890625, 19240.94921875, 21707.216796875, 19677.564453125, 27557.265625, 37403.55859375, 40676.4375, 36610.1953125, 28603.98828125, 23734.34375, 29791.88671875, 40298.2421875, 39465.01171875, 31752.619140625, 27708.11328125, 35673.3828125, 40536.515625, 35593.015625, 26966.87109375, 26590.142578125, 30422.0, 33354.33984375, 35176.4765625, 23779.408203125, 20908.5, 21142.3359375, 21788.849609375, 26421.75390625, 28145.931640625, 25236.234375, 21597.01171875, 24093.314453125, 27313.673828125, 31519.427734375, 25689.9296875, 20700.208984375, 24062.076171875, 19670.84765625, 19584.541015625, 30060.01171875, 32644.837890625, 20166.26953125, 17822.80078125, 20540.2109375, 34605.43359375, 32238.703125, 18659.49609375, 17438.44921875, 18509.216796875, 22184.287109375, 25793.310546875, 23147.259765625, 20061.591796875, 18019.361328125, 22074.388671875, 28142.87890625, 30466.5703125, 27220.484375, 23831.708984375, 22597.095703125], \\\"yaxis\\\": \\\"y\\\"}],\\n\",\n       \"                        {\\\"height\\\": 600, \\\"legend\\\": {\\\"tracegroupgap\\\": 0}, \\\"margin\\\": {\\\"t\\\": 60}, \\\"template\\\": {\\\"data\\\": {\\\"bar\\\": [{\\\"error_x\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}, \\\"error_y\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}, \\\"marker\\\": {\\\"line\\\": {\\\"color\\\": \\\"#E5ECF6\\\", \\\"width\\\": 0.5}}, \\\"type\\\": \\\"bar\\\"}], \\\"barpolar\\\": [{\\\"marker\\\": {\\\"line\\\": {\\\"color\\\": \\\"#E5ECF6\\\", \\\"width\\\": 0.5}}, \\\"type\\\": \\\"barpolar\\\"}], \\\"carpet\\\": [{\\\"aaxis\\\": {\\\"endlinecolor\\\": \\\"#2a3f5f\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"minorgridcolor\\\": \\\"white\\\", \\\"startlinecolor\\\": \\\"#2a3f5f\\\"}, \\\"baxis\\\": {\\\"endlinecolor\\\": \\\"#2a3f5f\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"minorgridcolor\\\": \\\"white\\\", \\\"startlinecolor\\\": \\\"#2a3f5f\\\"}, \\\"type\\\": \\\"carpet\\\"}], \\\"choropleth\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"type\\\": \\\"choropleth\\\"}], \\\"contour\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"contour\\\"}], \\\"contourcarpet\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"type\\\": \\\"contourcarpet\\\"}], \\\"heatmap\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"heatmap\\\"}], \\\"heatmapgl\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"heatmapgl\\\"}], \\\"histogram\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"histogram\\\"}], \\\"histogram2d\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"histogram2d\\\"}], \\\"histogram2dcontour\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"histogram2dcontour\\\"}], \\\"mesh3d\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"type\\\": \\\"mesh3d\\\"}], \\\"parcoords\\\": [{\\\"line\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"parcoords\\\"}], \\\"scatter\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatter\\\"}], \\\"scatter3d\\\": [{\\\"line\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatter3d\\\"}], \\\"scattercarpet\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattercarpet\\\"}], \\\"scattergeo\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattergeo\\\"}], \\\"scattergl\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattergl\\\"}], \\\"scattermapbox\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattermapbox\\\"}], \\\"scatterpolar\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatterpolar\\\"}], \\\"scatterpolargl\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatterpolargl\\\"}], \\\"scatterternary\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatterternary\\\"}], \\\"surface\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"surface\\\"}], \\\"table\\\": [{\\\"cells\\\": {\\\"fill\\\": {\\\"color\\\": \\\"#EBF0F8\\\"}, \\\"line\\\": {\\\"color\\\": \\\"white\\\"}}, \\\"header\\\": {\\\"fill\\\": {\\\"color\\\": \\\"#C8D4E3\\\"}, \\\"line\\\": {\\\"color\\\": \\\"white\\\"}}, \\\"type\\\": \\\"table\\\"}]}, \\\"layout\\\": {\\\"annotationdefaults\\\": {\\\"arrowcolor\\\": \\\"#2a3f5f\\\", \\\"arrowhead\\\": 0, \\\"arrowwidth\\\": 1}, \\\"colorscale\\\": {\\\"diverging\\\": [[0, \\\"#8e0152\\\"], [0.1, \\\"#c51b7d\\\"], [0.2, \\\"#de77ae\\\"], [0.3, \\\"#f1b6da\\\"], [0.4, \\\"#fde0ef\\\"], [0.5, \\\"#f7f7f7\\\"], [0.6, \\\"#e6f5d0\\\"], [0.7, \\\"#b8e186\\\"], [0.8, \\\"#7fbc41\\\"], [0.9, \\\"#4d9221\\\"], [1, \\\"#276419\\\"]], \\\"sequential\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"sequentialminus\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]]}, \\\"colorway\\\": [\\\"#636efa\\\", \\\"#EF553B\\\", \\\"#00cc96\\\", \\\"#ab63fa\\\", \\\"#FFA15A\\\", \\\"#19d3f3\\\", \\\"#FF6692\\\", \\\"#B6E880\\\", \\\"#FF97FF\\\", \\\"#FECB52\\\"], \\\"font\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}, \\\"geo\\\": {\\\"bgcolor\\\": \\\"white\\\", \\\"lakecolor\\\": \\\"white\\\", \\\"landcolor\\\": \\\"#E5ECF6\\\", \\\"showlakes\\\": true, \\\"showland\\\": true, \\\"subunitcolor\\\": \\\"white\\\"}, \\\"hoverlabel\\\": {\\\"align\\\": \\\"left\\\"}, \\\"hovermode\\\": \\\"closest\\\", \\\"mapbox\\\": {\\\"style\\\": \\\"light\\\"}, \\\"paper_bgcolor\\\": \\\"white\\\", \\\"plot_bgcolor\\\": \\\"#E5ECF6\\\", \\\"polar\\\": {\\\"angularaxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}, \\\"bgcolor\\\": \\\"#E5ECF6\\\", \\\"radialaxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}}, \\\"scene\\\": {\\\"xaxis\\\": {\\\"backgroundcolor\\\": \\\"#E5ECF6\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"gridwidth\\\": 2, \\\"linecolor\\\": \\\"white\\\", \\\"showbackground\\\": true, \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\"}, \\\"yaxis\\\": {\\\"backgroundcolor\\\": \\\"#E5ECF6\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"gridwidth\\\": 2, \\\"linecolor\\\": \\\"white\\\", \\\"showbackground\\\": true, \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\"}, \\\"zaxis\\\": {\\\"backgroundcolor\\\": \\\"#E5ECF6\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"gridwidth\\\": 2, \\\"linecolor\\\": \\\"white\\\", \\\"showbackground\\\": true, \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\"}}, \\\"shapedefaults\\\": {\\\"line\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}}, \\\"ternary\\\": {\\\"aaxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}, \\\"baxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}, \\\"bgcolor\\\": \\\"#E5ECF6\\\", \\\"caxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}}, \\\"title\\\": {\\\"x\\\": 0.05}, \\\"xaxis\\\": {\\\"automargin\\\": true, \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\", \\\"zerolinewidth\\\": 2}, \\\"yaxis\\\": {\\\"automargin\\\": true, \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\", \\\"zerolinewidth\\\": 2}}}, \\\"xaxis\\\": {\\\"anchor\\\": \\\"y\\\", \\\"domain\\\": [0.0, 0.98], \\\"title\\\": {\\\"text\\\": \\\"total_iters\\\"}}, \\\"yaxis\\\": {\\\"anchor\\\": \\\"x\\\", \\\"domain\\\": [0.0, 1.0], \\\"title\\\": {\\\"text\\\": \\\"val_mse\\\"}}},\\n\",\n       \"                        {\\\"responsive\\\": true}\\n\",\n       \"                    ).then(function(){\\n\",\n       \"                            \\n\",\n       \"var gd = document.getElementById('f164c161-7a84-4a75-bcfd-2666d97b0fdb');\\n\",\n       \"var x = new MutationObserver(function (mutations, observer) {{\\n\",\n       \"        var display = window.getComputedStyle(gd).display;\\n\",\n       \"        if (!display || display === 'none') {{\\n\",\n       \"            console.log([gd, 'removed!']);\\n\",\n       \"            Plotly.purge(gd);\\n\",\n       \"            observer.disconnect();\\n\",\n       \"        }}\\n\",\n       \"}});\\n\",\n       \"\\n\",\n       \"// Listen for the removal of the full notebook cells\\n\",\n       \"var notebookContainer = gd.closest('#notebook-container');\\n\",\n       \"if (notebookContainer) {{\\n\",\n       \"    x.observe(notebookContainer, {childList: true});\\n\",\n       \"}}\\n\",\n       \"\\n\",\n       \"// Listen for the clearing of the current output cell\\n\",\n       \"var outputEl = gd.closest('.output');\\n\",\n       \"if (outputEl) {{\\n\",\n       \"    x.observe(outputEl, {childList: true});\\n\",\n       \"}}\\n\",\n       \"\\n\",\n       \"                        })\\n\",\n       \"                };\\n\",\n       \"                });\\n\",\n       \"            </script>\\n\",\n       \"        </div>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"fig = px.line(trainer.training_info, x='total_iters', y='val_mse')\\n\",\n    \"fig.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 24,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"application/vnd.plotly.v1+json\": {\n       \"config\": {\n        \"plotlyServerURL\": \"https://plot.ly\"\n       },\n       \"data\": [\n        {\n         \"hoverlabel\": {\n          \"namelength\": 0\n         },\n         \"hovertemplate\": \"pred=%{x}<br>true=%{y}\",\n         \"legendgroup\": \"\",\n         \"marker\": {\n          \"color\": \"#636efa\",\n          \"symbol\": \"circle\"\n         },\n         \"mode\": \"markers\",\n         \"name\": \"\",\n         \"showlegend\": false,\n         \"type\": \"scatter\",\n         \"x\": [\n          6.362673759460449,\n          72.16960906982422,\n          1388.348876953125,\n          82.78936767578125,\n          47.87638473510742,\n          226.4082794189453,\n          251.42002868652344,\n          5.385708332061768,\n          115.9134521484375,\n          406.1997375488281,\n          175.92445373535156,\n          118.74018096923828,\n          528.5614013671875,\n          233.21209716796875,\n          5.341862678527832,\n          186.14453125,\n          217.5664825439453,\n          861.478759765625,\n          198.43202209472656,\n          652.226318359375,\n          57.45193099975586,\n          258.2080383300781,\n          179.97752380371094,\n          313.23876953125,\n          17.139326095581055,\n          203.27549743652344,\n          1236.8450927734375,\n          118.83533477783203,\n          948.9000854492188,\n          903.720703125,\n          71.84751892089844,\n          62.81964874267578,\n          1060.1549072265625,\n          0.54474937915802,\n          107.7354965209961,\n          176.88182067871094,\n          194.77569580078125,\n          38.03855514526367,\n          382.5918884277344,\n          57.32658004760742,\n          355.5962829589844,\n          340.0533447265625,\n          485.9054870605469,\n          256.0960998535156,\n          156.12689208984375,\n          350.6311340332031,\n          82.03355407714844,\n          220.30755615234375,\n          342.6907653808594,\n          79.86031341552734,\n          0.54474937915802,\n          112.48202514648438,\n          5.010685443878174,\n          708.6926879882812,\n          111.41361999511719,\n          826.3145141601562,\n          343.635986328125,\n          715.0277709960938,\n          31.620807647705078,\n          109.84451293945312,\n          0.9095147848129272,\n          432.6611633300781,\n          792.958740234375,\n          44.604496002197266,\n          383.2724304199219,\n          49.10377883911133,\n          884.3495483398438,\n          843.5745239257812,\n          440.523193359375,\n          287.3283386230469,\n          1985.9822998046875,\n          17.47268295288086,\n          7.498619556427002,\n          490.8683776855469,\n          24.588241577148438,\n          433.20672607421875,\n          225.99978637695312,\n          166.49281311035156,\n          290.8121032714844,\n          103.74004364013672,\n          420.3087463378906,\n          773.67626953125,\n          994.7723388671875,\n          48.808433532714844,\n          927.7765502929688,\n          96.63218688964844,\n          46.760833740234375,\n          1623.5855712890625,\n          221.88133239746094,\n          841.69384765625,\n          78.56234741210938,\n          333.167236328125,\n          14.289780616760254,\n          56.410823822021484,\n          77.88280487060547,\n          202.30331420898438,\n          9.014702796936035,\n          7.341258525848389,\n          120.14944458007812,\n          24.68330955505371,\n          580.6941528320312,\n          74.4193115234375,\n          483.5474853515625,\n          595.630615234375,\n          121.47213745117188,\n          580.4829711914062,\n          80.22864532470703,\n          286.5853271484375,\n          220.0286407470703,\n          379.61920166015625,\n          14.513605117797852,\n          198.67262268066406,\n          317.6934509277344,\n          131.0081787109375,\n          394.75347900390625,\n          6.649993896484375,\n          166.26504516601562,\n          184.4288787841797,\n          656.1381225585938,\n          31.031658172607422,\n          350.5299072265625,\n          218.86439514160156,\n          936.1875,\n          348.2264099121094,\n          525.04248046875,\n          498.1465148925781,\n          46.07258605957031,\n          940.7135009765625,\n          60.18382263183594,\n          514.5714721679688,\n          5.251948356628418,\n          47.93795394897461,\n          753.2862548828125,\n          458.7500915527344,\n          135.03224182128906,\n          884.906494140625,\n          689.7902221679688,\n          1058.8721923828125,\n          0.54474937915802,\n          420.11846923828125,\n          106.72076416015625,\n          0.54474937915802,\n          25.919723510742188,\n          442.5283508300781,\n          23.090240478515625,\n          181.1737823486328,\n          134.48887634277344,\n          97.23138427734375,\n          224.32789611816406,\n          15.930621147155762,\n          25.971010208129883,\n          259.3730163574219,\n          445.3958435058594,\n          319.2977294921875,\n          487.32110595703125,\n          0.54474937915802,\n          155.53440856933594,\n          181.01254272460938,\n          94.10074615478516,\n          0.54474937915802,\n          340.5472717285156,\n          1.0901355743408203,\n          995.224853515625,\n          66.08694458007812,\n          82.86097717285156,\n          1390.9212646484375,\n          404.2516174316406,\n          933.0673828125,\n          802.8898315429688,\n          347.02117919921875,\n          863.7154541015625,\n          368.14520263671875,\n          360.5189208984375,\n          46.84708023071289,\n          174.6117401123047,\n          39.291839599609375,\n          187.39390563964844,\n          599.0189208984375,\n          480.5167236328125,\n          766.0553588867188,\n          409.70318603515625,\n          233.81260681152344,\n          89.12793731689453,\n          358.6405944824219,\n          1091.121826171875\n         ],\n         \"xaxis\": \"x\",\n         \"y\": [\n          77.9571304321289,\n          163.53045654296875,\n          1826.8447265625,\n          151.70924377441406,\n          80.30834197998047,\n          338.3319091796875,\n          268.38177490234375,\n          123.30481719970703,\n          189.24195861816406,\n          428.225341796875,\n          258.00543212890625,\n          281.171875,\n          621.0658569335938,\n          283.9226989746094,\n          63.02202224731445,\n          311.4739990234375,\n          211.5360107421875,\n          992.4480590820312,\n          231.4869384765625,\n          560.8338012695312,\n          198.52728271484375,\n          309.1434326171875,\n          249.29129028320312,\n          342.68206787109375,\n          61.03076934814453,\n          220.17633056640625,\n          2450.009521484375,\n          165.99220275878906,\n          950.962890625,\n          962.6619873046875,\n          156.9743194580078,\n          141.8263397216797,\n          1022.4301147460938,\n          37.50093078613281,\n          206.96522521972656,\n          220.01400756835938,\n          212.443603515625,\n          98.3851089477539,\n          448.0285339355469,\n          138.9425048828125,\n          448.4651794433594,\n          432.5032958984375,\n          495.1811218261719,\n          345.8451232910156,\n          245.5039825439453,\n          412.9864196777344,\n          202.0170440673828,\n          297.76446533203125,\n          532.7265014648438,\n          278.5806579589844,\n          37.671695709228516,\n          194.12725830078125,\n          31.5797176361084,\n          1149.6351318359375,\n          154.52267456054688,\n          919.0196533203125,\n          413.65386962890625,\n          841.3271484375,\n          105.00984954833984,\n          229.43777465820312,\n          64.45941925048828,\n          552.9246215820312,\n          1028.2279052734375,\n          43.61710739135742,\n          431.6595153808594,\n          90.9559326171875,\n          1303.5836181640625,\n          890.3626708984375,\n          569.5140380859375,\n          431.8638916015625,\n          2436.18310546875,\n          52.81706619262695,\n          78.6551513671875,\n          548.394287109375,\n          89.67427825927734,\n          487.7510986328125,\n          321.8439025878906,\n          253.6630096435547,\n          388.11279296875,\n          168.109375,\n          627.3142700195312,\n          1067.4061279296875,\n          1236.0352783203125,\n          102.42861938476562,\n          1180.9033203125,\n          220.6939697265625,\n          151.91041564941406,\n          2158.785888671875,\n          368.9160461425781,\n          1201.4212646484375,\n          82.80596160888672,\n          409.6012878417969,\n          77.42253875732422,\n          202.0304718017578,\n          216.16015625,\n          175.95596313476562,\n          64.39976501464844,\n          187.79859924316406,\n          189.1757049560547,\n          59.09212112426758,\n          621.359619140625,\n          164.95960998535156,\n          552.0265502929688,\n          710.3143310546875,\n          145.63583374023438,\n          729.1256713867188,\n          74.18424987792969,\n          367.1632995605469,\n          327.543701171875,\n          457.2006530761719,\n          53.2690315246582,\n          255.16848754882812,\n          358.9944763183594,\n          238.01922607421875,\n          449.8248291015625,\n          94.63938903808594,\n          238.029541015625,\n          286.6407775878906,\n          571.55126953125,\n          67.0068359375,\n          447.58367919921875,\n          338.4270935058594,\n          1413.515380859375,\n          677.1759643554688,\n          598.5073852539062,\n          513.616455078125,\n          139.0047607421875,\n          1081.890625,\n          123.90229797363281,\n          489.0572509765625,\n          66.90640258789062,\n          83.69025421142578,\n          928.8671264648438,\n          560.3896484375,\n          256.2381591796875,\n          1593.60888671875,\n          983.5131225585938,\n          1143.4217529296875,\n          58.11159133911133,\n          523.824462890625,\n          212.0817413330078,\n          45.092227935791016,\n          56.402427673339844,\n          631.8007202148438,\n          83.85343170166016,\n          199.72796630859375,\n          237.97103881835938,\n          193.22714233398438,\n          274.6974182128906,\n          46.50630569458008,\n          37.05415344238281,\n          278.2839660644531,\n          459.4448547363281,\n          345.9854431152344,\n          585.2044067382812,\n          102.33951568603516,\n          193.85865783691406,\n          250.27357482910156,\n          177.010009765625,\n          58.37874984741211,\n          465.4765930175781,\n          59.59326171875,\n          1126.5220947265625,\n          178.4322052001953,\n          163.12608337402344,\n          1803.5743408203125,\n          608.3904418945312,\n          869.5647583007812,\n          977.2542724609375,\n          456.4844055175781,\n          1031.490966796875,\n          449.3094177246094,\n          482.47723388671875,\n          81.26469421386719,\n          245.15028381347656,\n          66.2059326171875,\n          218.7720184326172,\n          579.5902099609375,\n          517.2003784179688,\n          900.4454345703125,\n          516.2110595703125,\n          267.52154541015625,\n          191.47442626953125,\n          448.05364990234375,\n          1461.58984375\n         ],\n         \"yaxis\": \"y\"\n        },\n        {\n         \"alignmentgroup\": \"True\",\n         \"bingroup\": \"x\",\n         \"hoverlabel\": {\n          \"namelength\": 0\n         },\n         \"hovertemplate\": \"pred=%{x}<br>count=%{y}\",\n         \"legendgroup\": \"\",\n         \"marker\": {\n          \"color\": \"#636efa\"\n         },\n         \"name\": \"\",\n         \"offsetgroup\": \"\",\n         \"opacity\": 0.5,\n         \"showlegend\": false,\n         \"type\": \"histogram\",\n         \"x\": [\n          6.362673759460449,\n          72.16960906982422,\n          1388.348876953125,\n          82.78936767578125,\n          47.87638473510742,\n          226.4082794189453,\n          251.42002868652344,\n          5.385708332061768,\n          115.9134521484375,\n          406.1997375488281,\n          175.92445373535156,\n          118.74018096923828,\n          528.5614013671875,\n          233.21209716796875,\n          5.341862678527832,\n          186.14453125,\n          217.5664825439453,\n          861.478759765625,\n          198.43202209472656,\n          652.226318359375,\n          57.45193099975586,\n          258.2080383300781,\n          179.97752380371094,\n          313.23876953125,\n          17.139326095581055,\n          203.27549743652344,\n          1236.8450927734375,\n          118.83533477783203,\n          948.9000854492188,\n          903.720703125,\n          71.84751892089844,\n          62.81964874267578,\n          1060.1549072265625,\n          0.54474937915802,\n          107.7354965209961,\n          176.88182067871094,\n          194.77569580078125,\n          38.03855514526367,\n          382.5918884277344,\n          57.32658004760742,\n          355.5962829589844,\n          340.0533447265625,\n          485.9054870605469,\n          256.0960998535156,\n          156.12689208984375,\n          350.6311340332031,\n          82.03355407714844,\n          220.30755615234375,\n          342.6907653808594,\n          79.86031341552734,\n          0.54474937915802,\n          112.48202514648438,\n          5.010685443878174,\n          708.6926879882812,\n          111.41361999511719,\n          826.3145141601562,\n          343.635986328125,\n          715.0277709960938,\n          31.620807647705078,\n          109.84451293945312,\n          0.9095147848129272,\n          432.6611633300781,\n          792.958740234375,\n          44.604496002197266,\n          383.2724304199219,\n          49.10377883911133,\n          884.3495483398438,\n          843.5745239257812,\n          440.523193359375,\n          287.3283386230469,\n          1985.9822998046875,\n          17.47268295288086,\n          7.498619556427002,\n          490.8683776855469,\n          24.588241577148438,\n          433.20672607421875,\n          225.99978637695312,\n          166.49281311035156,\n          290.8121032714844,\n          103.74004364013672,\n          420.3087463378906,\n          773.67626953125,\n          994.7723388671875,\n          48.808433532714844,\n          927.7765502929688,\n          96.63218688964844,\n          46.760833740234375,\n          1623.5855712890625,\n          221.88133239746094,\n          841.69384765625,\n          78.56234741210938,\n          333.167236328125,\n          14.289780616760254,\n          56.410823822021484,\n          77.88280487060547,\n          202.30331420898438,\n          9.014702796936035,\n          7.341258525848389,\n          120.14944458007812,\n          24.68330955505371,\n          580.6941528320312,\n          74.4193115234375,\n          483.5474853515625,\n          595.630615234375,\n          121.47213745117188,\n          580.4829711914062,\n          80.22864532470703,\n          286.5853271484375,\n          220.0286407470703,\n          379.61920166015625,\n          14.513605117797852,\n          198.67262268066406,\n          317.6934509277344,\n          131.0081787109375,\n          394.75347900390625,\n          6.649993896484375,\n          166.26504516601562,\n          184.4288787841797,\n          656.1381225585938,\n          31.031658172607422,\n          350.5299072265625,\n          218.86439514160156,\n          936.1875,\n          348.2264099121094,\n          525.04248046875,\n          498.1465148925781,\n          46.07258605957031,\n          940.7135009765625,\n          60.18382263183594,\n          514.5714721679688,\n          5.251948356628418,\n          47.93795394897461,\n          753.2862548828125,\n          458.7500915527344,\n          135.03224182128906,\n          884.906494140625,\n          689.7902221679688,\n          1058.8721923828125,\n          0.54474937915802,\n          420.11846923828125,\n          106.72076416015625,\n          0.54474937915802,\n          25.919723510742188,\n          442.5283508300781,\n          23.090240478515625,\n          181.1737823486328,\n          134.48887634277344,\n          97.23138427734375,\n          224.32789611816406,\n          15.930621147155762,\n          25.971010208129883,\n          259.3730163574219,\n          445.3958435058594,\n          319.2977294921875,\n          487.32110595703125,\n          0.54474937915802,\n          155.53440856933594,\n          181.01254272460938,\n          94.10074615478516,\n          0.54474937915802,\n          340.5472717285156,\n          1.0901355743408203,\n          995.224853515625,\n          66.08694458007812,\n          82.86097717285156,\n          1390.9212646484375,\n          404.2516174316406,\n          933.0673828125,\n          802.8898315429688,\n          347.02117919921875,\n          863.7154541015625,\n          368.14520263671875,\n          360.5189208984375,\n          46.84708023071289,\n          174.6117401123047,\n          39.291839599609375,\n          187.39390563964844,\n          599.0189208984375,\n          480.5167236328125,\n          766.0553588867188,\n          409.70318603515625,\n          233.81260681152344,\n          89.12793731689453,\n          358.6405944824219,\n          1091.121826171875\n         ],\n         \"xaxis\": \"x3\",\n         \"yaxis\": \"y3\"\n        },\n        {\n         \"alignmentgroup\": \"True\",\n         \"bingroup\": \"y\",\n         \"hoverlabel\": {\n          \"namelength\": 0\n         },\n         \"hovertemplate\": \"true=%{y}<br>count=%{x}\",\n         \"legendgroup\": \"\",\n         \"marker\": {\n          \"color\": \"#636efa\"\n         },\n         \"name\": \"\",\n         \"offsetgroup\": \"\",\n         \"opacity\": 0.5,\n         \"showlegend\": false,\n         \"type\": \"histogram\",\n         \"xaxis\": \"x2\",\n         \"y\": [\n          77.9571304321289,\n          163.53045654296875,\n          1826.8447265625,\n          151.70924377441406,\n          80.30834197998047,\n          338.3319091796875,\n          268.38177490234375,\n          123.30481719970703,\n          189.24195861816406,\n          428.225341796875,\n          258.00543212890625,\n          281.171875,\n          621.0658569335938,\n          283.9226989746094,\n          63.02202224731445,\n          311.4739990234375,\n          211.5360107421875,\n          992.4480590820312,\n          231.4869384765625,\n          560.8338012695312,\n          198.52728271484375,\n          309.1434326171875,\n          249.29129028320312,\n          342.68206787109375,\n          61.03076934814453,\n          220.17633056640625,\n          2450.009521484375,\n          165.99220275878906,\n          950.962890625,\n          962.6619873046875,\n          156.9743194580078,\n          141.8263397216797,\n          1022.4301147460938,\n          37.50093078613281,\n          206.96522521972656,\n          220.01400756835938,\n          212.443603515625,\n          98.3851089477539,\n          448.0285339355469,\n          138.9425048828125,\n          448.4651794433594,\n          432.5032958984375,\n          495.1811218261719,\n          345.8451232910156,\n          245.5039825439453,\n          412.9864196777344,\n          202.0170440673828,\n          297.76446533203125,\n          532.7265014648438,\n          278.5806579589844,\n          37.671695709228516,\n          194.12725830078125,\n          31.5797176361084,\n          1149.6351318359375,\n          154.52267456054688,\n          919.0196533203125,\n          413.65386962890625,\n          841.3271484375,\n          105.00984954833984,\n          229.43777465820312,\n          64.45941925048828,\n          552.9246215820312,\n          1028.2279052734375,\n          43.61710739135742,\n          431.6595153808594,\n          90.9559326171875,\n          1303.5836181640625,\n          890.3626708984375,\n          569.5140380859375,\n          431.8638916015625,\n          2436.18310546875,\n          52.81706619262695,\n          78.6551513671875,\n          548.394287109375,\n          89.67427825927734,\n          487.7510986328125,\n          321.8439025878906,\n          253.6630096435547,\n          388.11279296875,\n          168.109375,\n          627.3142700195312,\n          1067.4061279296875,\n          1236.0352783203125,\n          102.42861938476562,\n          1180.9033203125,\n          220.6939697265625,\n          151.91041564941406,\n          2158.785888671875,\n          368.9160461425781,\n          1201.4212646484375,\n          82.80596160888672,\n          409.6012878417969,\n          77.42253875732422,\n          202.0304718017578,\n          216.16015625,\n          175.95596313476562,\n          64.39976501464844,\n          187.79859924316406,\n          189.1757049560547,\n          59.09212112426758,\n          621.359619140625,\n          164.95960998535156,\n          552.0265502929688,\n          710.3143310546875,\n          145.63583374023438,\n          729.1256713867188,\n          74.18424987792969,\n          367.1632995605469,\n          327.543701171875,\n          457.2006530761719,\n          53.2690315246582,\n          255.16848754882812,\n          358.9944763183594,\n          238.01922607421875,\n          449.8248291015625,\n          94.63938903808594,\n          238.029541015625,\n          286.6407775878906,\n          571.55126953125,\n          67.0068359375,\n          447.58367919921875,\n          338.4270935058594,\n          1413.515380859375,\n          677.1759643554688,\n          598.5073852539062,\n          513.616455078125,\n          139.0047607421875,\n          1081.890625,\n          123.90229797363281,\n          489.0572509765625,\n          66.90640258789062,\n          83.69025421142578,\n          928.8671264648438,\n          560.3896484375,\n          256.2381591796875,\n          1593.60888671875,\n          983.5131225585938,\n          1143.4217529296875,\n          58.11159133911133,\n          523.824462890625,\n          212.0817413330078,\n          45.092227935791016,\n          56.402427673339844,\n          631.8007202148438,\n          83.85343170166016,\n          199.72796630859375,\n          237.97103881835938,\n          193.22714233398438,\n          274.6974182128906,\n          46.50630569458008,\n          37.05415344238281,\n          278.2839660644531,\n          459.4448547363281,\n          345.9854431152344,\n          585.2044067382812,\n          102.33951568603516,\n          193.85865783691406,\n          250.27357482910156,\n          177.010009765625,\n          58.37874984741211,\n          465.4765930175781,\n          59.59326171875,\n          1126.5220947265625,\n          178.4322052001953,\n          163.12608337402344,\n          1803.5743408203125,\n          608.3904418945312,\n          869.5647583007812,\n          977.2542724609375,\n          456.4844055175781,\n          1031.490966796875,\n          449.3094177246094,\n          482.47723388671875,\n          81.26469421386719,\n          245.15028381347656,\n          66.2059326171875,\n          218.7720184326172,\n          579.5902099609375,\n          517.2003784179688,\n          900.4454345703125,\n          516.2110595703125,\n          267.52154541015625,\n          191.47442626953125,\n          448.05364990234375,\n          1461.58984375\n         ],\n         \"yaxis\": \"y2\"\n        }\n       ],\n       \"layout\": {\n        \"barmode\": \"overlay\",\n        \"height\": 800,\n        \"legend\": {\n         \"tracegroupgap\": 0\n        },\n        \"margin\": {\n         \"t\": 60\n        },\n        \"template\": {\n         \"data\": {\n          \"bar\": [\n           {\n            \"error_x\": {\n             \"color\": \"#2a3f5f\"\n            },\n            \"error_y\": {\n             \"color\": \"#2a3f5f\"\n            },\n            \"marker\": {\n             \"line\": {\n              \"color\": \"#E5ECF6\",\n              \"width\": 0.5\n             }\n            },\n            \"type\": \"bar\"\n           }\n          ],\n          \"barpolar\": [\n           {\n            \"marker\": {\n             \"line\": {\n              \"color\": \"#E5ECF6\",\n              \"width\": 0.5\n             }\n            },\n            \"type\": \"barpolar\"\n           }\n          ],\n          \"carpet\": [\n           {\n            \"aaxis\": {\n             \"endlinecolor\": \"#2a3f5f\",\n             \"gridcolor\": \"white\",\n             \"linecolor\": \"white\",\n             \"minorgridcolor\": \"white\",\n             \"startlinecolor\": \"#2a3f5f\"\n            },\n            \"baxis\": {\n             \"endlinecolor\": \"#2a3f5f\",\n             \"gridcolor\": \"white\",\n             \"linecolor\": \"white\",\n             \"minorgridcolor\": \"white\",\n             \"startlinecolor\": \"#2a3f5f\"\n            },\n            \"type\": \"carpet\"\n           }\n          ],\n          \"choropleth\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"type\": \"choropleth\"\n           }\n          ],\n          \"contour\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"contour\"\n           }\n          ],\n          \"contourcarpet\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"type\": \"contourcarpet\"\n           }\n          ],\n          \"heatmap\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"heatmap\"\n           }\n          ],\n          \"heatmapgl\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"heatmapgl\"\n           }\n          ],\n          \"histogram\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"histogram\"\n           }\n          ],\n          \"histogram2d\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"histogram2d\"\n           }\n          ],\n          \"histogram2dcontour\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"histogram2dcontour\"\n           }\n          ],\n          \"mesh3d\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"type\": \"mesh3d\"\n           }\n          ],\n          \"parcoords\": [\n           {\n            \"line\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"parcoords\"\n           }\n          ],\n          \"scatter\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatter\"\n           }\n          ],\n          \"scatter3d\": [\n           {\n            \"line\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatter3d\"\n           }\n          ],\n          \"scattercarpet\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattercarpet\"\n           }\n          ],\n          \"scattergeo\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattergeo\"\n           }\n          ],\n          \"scattergl\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattergl\"\n           }\n          ],\n          \"scattermapbox\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattermapbox\"\n           }\n          ],\n          \"scatterpolar\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatterpolar\"\n           }\n          ],\n          \"scatterpolargl\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatterpolargl\"\n           }\n          ],\n          \"scatterternary\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatterternary\"\n           }\n          ],\n          \"surface\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"surface\"\n           }\n          ],\n          \"table\": [\n           {\n            \"cells\": {\n             \"fill\": {\n              \"color\": \"#EBF0F8\"\n             },\n             \"line\": {\n              \"color\": \"white\"\n             }\n            },\n            \"header\": {\n             \"fill\": {\n              \"color\": \"#C8D4E3\"\n             },\n             \"line\": {\n              \"color\": \"white\"\n             }\n            },\n            \"type\": \"table\"\n           }\n          ]\n         },\n         \"layout\": {\n          \"annotationdefaults\": {\n           \"arrowcolor\": \"#2a3f5f\",\n           \"arrowhead\": 0,\n           \"arrowwidth\": 1\n          },\n          \"colorscale\": {\n           \"diverging\": [\n            [\n             0,\n             \"#8e0152\"\n            ],\n            [\n             0.1,\n             \"#c51b7d\"\n            ],\n            [\n             0.2,\n             \"#de77ae\"\n            ],\n            [\n             0.3,\n             \"#f1b6da\"\n            ],\n            [\n             0.4,\n             \"#fde0ef\"\n            ],\n            [\n             0.5,\n             \"#f7f7f7\"\n            ],\n            [\n             0.6,\n             \"#e6f5d0\"\n            ],\n            [\n             0.7,\n             \"#b8e186\"\n            ],\n            [\n             0.8,\n             \"#7fbc41\"\n            ],\n            [\n             0.9,\n             \"#4d9221\"\n            ],\n            [\n             1,\n             \"#276419\"\n            ]\n           ],\n           \"sequential\": [\n            [\n             0,\n             \"#0d0887\"\n            ],\n            [\n             0.1111111111111111,\n             \"#46039f\"\n            ],\n            [\n             0.2222222222222222,\n             \"#7201a8\"\n            ],\n            [\n             0.3333333333333333,\n             \"#9c179e\"\n            ],\n            [\n             0.4444444444444444,\n             \"#bd3786\"\n            ],\n            [\n             0.5555555555555556,\n             \"#d8576b\"\n            ],\n            [\n             0.6666666666666666,\n             \"#ed7953\"\n            ],\n            [\n             0.7777777777777778,\n             \"#fb9f3a\"\n            ],\n            [\n             0.8888888888888888,\n             \"#fdca26\"\n            ],\n            [\n             1,\n             \"#f0f921\"\n            ]\n           ],\n           \"sequentialminus\": [\n            [\n             0,\n             \"#0d0887\"\n            ],\n            [\n             0.1111111111111111,\n             \"#46039f\"\n            ],\n            [\n             0.2222222222222222,\n             \"#7201a8\"\n            ],\n            [\n             0.3333333333333333,\n             \"#9c179e\"\n            ],\n            [\n             0.4444444444444444,\n             \"#bd3786\"\n            ],\n            [\n             0.5555555555555556,\n             \"#d8576b\"\n            ],\n            [\n             0.6666666666666666,\n             \"#ed7953\"\n            ],\n            [\n             0.7777777777777778,\n             \"#fb9f3a\"\n            ],\n            [\n             0.8888888888888888,\n             \"#fdca26\"\n            ],\n            [\n             1,\n             \"#f0f921\"\n            ]\n           ]\n          },\n          \"colorway\": [\n           \"#636efa\",\n           \"#EF553B\",\n           \"#00cc96\",\n           \"#ab63fa\",\n           \"#FFA15A\",\n           \"#19d3f3\",\n           \"#FF6692\",\n           \"#B6E880\",\n           \"#FF97FF\",\n           \"#FECB52\"\n          ],\n          \"font\": {\n           \"color\": \"#2a3f5f\"\n          },\n          \"geo\": {\n           \"bgcolor\": \"white\",\n           \"lakecolor\": \"white\",\n           \"landcolor\": \"#E5ECF6\",\n           \"showlakes\": true,\n           \"showland\": true,\n           \"subunitcolor\": \"white\"\n          },\n          \"hoverlabel\": {\n           \"align\": \"left\"\n          },\n          \"hovermode\": \"closest\",\n          \"mapbox\": {\n           \"style\": \"light\"\n          },\n          \"paper_bgcolor\": \"white\",\n          \"plot_bgcolor\": \"#E5ECF6\",\n          \"polar\": {\n           \"angularaxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           },\n           \"bgcolor\": \"#E5ECF6\",\n           \"radialaxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           }\n          },\n          \"scene\": {\n           \"xaxis\": {\n            \"backgroundcolor\": \"#E5ECF6\",\n            \"gridcolor\": \"white\",\n            \"gridwidth\": 2,\n            \"linecolor\": \"white\",\n            \"showbackground\": true,\n            \"ticks\": \"\",\n            \"zerolinecolor\": \"white\"\n           },\n           \"yaxis\": {\n            \"backgroundcolor\": \"#E5ECF6\",\n            \"gridcolor\": \"white\",\n            \"gridwidth\": 2,\n            \"linecolor\": \"white\",\n            \"showbackground\": true,\n            \"ticks\": \"\",\n            \"zerolinecolor\": \"white\"\n           },\n           \"zaxis\": {\n            \"backgroundcolor\": \"#E5ECF6\",\n            \"gridcolor\": \"white\",\n            \"gridwidth\": 2,\n            \"linecolor\": \"white\",\n            \"showbackground\": true,\n            \"ticks\": \"\",\n            \"zerolinecolor\": \"white\"\n           }\n          },\n          \"shapedefaults\": {\n           \"line\": {\n            \"color\": \"#2a3f5f\"\n           }\n          },\n          \"ternary\": {\n           \"aaxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           },\n           \"baxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           },\n           \"bgcolor\": \"#E5ECF6\",\n           \"caxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           }\n          },\n          \"title\": {\n           \"x\": 0.05\n          },\n          \"xaxis\": {\n           \"automargin\": true,\n           \"gridcolor\": \"white\",\n           \"linecolor\": \"white\",\n           \"ticks\": \"\",\n           \"zerolinecolor\": \"white\",\n           \"zerolinewidth\": 2\n          },\n          \"yaxis\": {\n           \"automargin\": true,\n           \"gridcolor\": \"white\",\n           \"linecolor\": \"white\",\n           \"ticks\": \"\",\n           \"zerolinecolor\": \"white\",\n           \"zerolinewidth\": 2\n          }\n         }\n        },\n        \"width\": 800,\n        \"xaxis\": {\n         \"anchor\": \"y\",\n         \"autorange\": true,\n         \"domain\": [\n          0,\n          0.7215\n         ],\n         \"range\": [\n          -130.02928189460025,\n          2116.556331078446\n         ],\n         \"title\": {\n          \"text\": \"pred\"\n         },\n         \"type\": \"linear\"\n        },\n        \"xaxis2\": {\n         \"anchor\": \"y2\",\n         \"autorange\": true,\n         \"domain\": [\n          0.7265,\n          0.98\n         ],\n         \"matches\": \"x2\",\n         \"range\": [\n          0,\n          67.36842105263158\n         ],\n         \"showgrid\": true,\n         \"showticklabels\": false\n        },\n        \"xaxis3\": {\n         \"anchor\": \"y3\",\n         \"autorange\": true,\n         \"domain\": [\n          0,\n          0.7215\n         ],\n         \"matches\": \"x\",\n         \"range\": [\n          -130.02928189460025,\n          2116.556331078446\n         ],\n         \"showgrid\": true,\n         \"showticklabels\": false,\n         \"type\": \"linear\"\n        },\n        \"xaxis4\": {\n         \"anchor\": \"y4\",\n         \"domain\": [\n          0.7265,\n          0.98\n         ],\n         \"matches\": \"x2\",\n         \"showgrid\": true,\n         \"showticklabels\": false\n        },\n        \"yaxis\": {\n         \"anchor\": \"x\",\n         \"autorange\": true,\n         \"domain\": [\n          0,\n          0.7326\n         ],\n         \"range\": [\n          -126.33987309041905,\n          2607.9291122109025\n         ],\n         \"title\": {\n          \"text\": \"true\"\n         },\n         \"type\": \"linear\"\n        },\n        \"yaxis2\": {\n         \"anchor\": \"x2\",\n         \"autorange\": true,\n         \"domain\": [\n          0,\n          0.7326\n         ],\n         \"matches\": \"y\",\n         \"range\": [\n          -126.33987309041905,\n          2607.9291122109025\n         ],\n         \"showgrid\": true,\n         \"showticklabels\": false,\n         \"type\": \"linear\"\n        },\n        \"yaxis3\": {\n         \"anchor\": \"x3\",\n         \"autorange\": true,\n         \"domain\": [\n          0.7426,\n          1\n         ],\n         \"matches\": \"y3\",\n         \"range\": [\n          0,\n          41.05263157894737\n         ],\n         \"showgrid\": true,\n         \"showticklabels\": false\n        },\n        \"yaxis4\": {\n         \"anchor\": \"x4\",\n         \"domain\": [\n          0.7426,\n          1\n         ],\n         \"matches\": \"y3\",\n         \"showgrid\": true,\n         \"showticklabels\": false\n        }\n       }\n      },\n      \"image/png\": \"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\",\n      \"text/html\": [\n       \"<div>\\n\",\n       \"        \\n\",\n       \"        \\n\",\n       \"            <div id=\\\"3f8ba5d1-21c7-4685-b71f-59d780d86457\\\" class=\\\"plotly-graph-div\\\" style=\\\"height:800px; width:800px;\\\"></div>\\n\",\n       \"            <script type=\\\"text/javascript\\\">\\n\",\n       \"                require([\\\"plotly\\\"], function(Plotly) {\\n\",\n       \"                    window.PLOTLYENV=window.PLOTLYENV || {};\\n\",\n       \"                    \\n\",\n       \"                if (document.getElementById(\\\"3f8ba5d1-21c7-4685-b71f-59d780d86457\\\")) {\\n\",\n       \"                    Plotly.newPlot(\\n\",\n       \"                        '3f8ba5d1-21c7-4685-b71f-59d780d86457',\\n\",\n       \"                        [{\\\"hoverlabel\\\": {\\\"namelength\\\": 0}, \\\"hovertemplate\\\": \\\"pred=%{x}<br>true=%{y}\\\", \\\"legendgroup\\\": \\\"\\\", \\\"marker\\\": {\\\"color\\\": \\\"#636efa\\\", \\\"symbol\\\": \\\"circle\\\"}, \\\"mode\\\": \\\"markers\\\", \\\"name\\\": \\\"\\\", \\\"showlegend\\\": false, \\\"type\\\": \\\"scatter\\\", \\\"x\\\": [6.362673759460449, 72.16960906982422, 1388.348876953125, 82.78936767578125, 47.87638473510742, 226.4082794189453, 251.42002868652344, 5.385708332061768, 115.9134521484375, 406.1997375488281, 175.92445373535156, 118.74018096923828, 528.5614013671875, 233.21209716796875, 5.341862678527832, 186.14453125, 217.5664825439453, 861.478759765625, 198.43202209472656, 652.226318359375, 57.45193099975586, 258.2080383300781, 179.97752380371094, 313.23876953125, 17.139326095581055, 203.27549743652344, 1236.8450927734375, 118.83533477783203, 948.9000854492188, 903.720703125, 71.84751892089844, 62.81964874267578, 1060.1549072265625, 0.54474937915802, 107.7354965209961, 176.88182067871094, 194.77569580078125, 38.03855514526367, 382.5918884277344, 57.32658004760742, 355.5962829589844, 340.0533447265625, 485.9054870605469, 256.0960998535156, 156.12689208984375, 350.6311340332031, 82.03355407714844, 220.30755615234375, 342.6907653808594, 79.86031341552734, 0.54474937915802, 112.48202514648438, 5.010685443878174, 708.6926879882812, 111.41361999511719, 826.3145141601562, 343.635986328125, 715.0277709960938, 31.620807647705078, 109.84451293945312, 0.9095147848129272, 432.6611633300781, 792.958740234375, 44.604496002197266, 383.2724304199219, 49.10377883911133, 884.3495483398438, 843.5745239257812, 440.523193359375, 287.3283386230469, 1985.9822998046875, 17.47268295288086, 7.498619556427002, 490.8683776855469, 24.588241577148438, 433.20672607421875, 225.99978637695312, 166.49281311035156, 290.8121032714844, 103.74004364013672, 420.3087463378906, 773.67626953125, 994.7723388671875, 48.808433532714844, 927.7765502929688, 96.63218688964844, 46.760833740234375, 1623.5855712890625, 221.88133239746094, 841.69384765625, 78.56234741210938, 333.167236328125, 14.289780616760254, 56.410823822021484, 77.88280487060547, 202.30331420898438, 9.014702796936035, 7.341258525848389, 120.14944458007812, 24.68330955505371, 580.6941528320312, 74.4193115234375, 483.5474853515625, 595.630615234375, 121.47213745117188, 580.4829711914062, 80.22864532470703, 286.5853271484375, 220.0286407470703, 379.61920166015625, 14.513605117797852, 198.67262268066406, 317.6934509277344, 131.0081787109375, 394.75347900390625, 6.649993896484375, 166.26504516601562, 184.4288787841797, 656.1381225585938, 31.031658172607422, 350.5299072265625, 218.86439514160156, 936.1875, 348.2264099121094, 525.04248046875, 498.1465148925781, 46.07258605957031, 940.7135009765625, 60.18382263183594, 514.5714721679688, 5.251948356628418, 47.93795394897461, 753.2862548828125, 458.7500915527344, 135.03224182128906, 884.906494140625, 689.7902221679688, 1058.8721923828125, 0.54474937915802, 420.11846923828125, 106.72076416015625, 0.54474937915802, 25.919723510742188, 442.5283508300781, 23.090240478515625, 181.1737823486328, 134.48887634277344, 97.23138427734375, 224.32789611816406, 15.930621147155762, 25.971010208129883, 259.3730163574219, 445.3958435058594, 319.2977294921875, 487.32110595703125, 0.54474937915802, 155.53440856933594, 181.01254272460938, 94.10074615478516, 0.54474937915802, 340.5472717285156, 1.0901355743408203, 995.224853515625, 66.08694458007812, 82.86097717285156, 1390.9212646484375, 404.2516174316406, 933.0673828125, 802.8898315429688, 347.02117919921875, 863.7154541015625, 368.14520263671875, 360.5189208984375, 46.84708023071289, 174.6117401123047, 39.291839599609375, 187.39390563964844, 599.0189208984375, 480.5167236328125, 766.0553588867188, 409.70318603515625, 233.81260681152344, 89.12793731689453, 358.6405944824219, 1091.121826171875], \\\"xaxis\\\": \\\"x\\\", \\\"y\\\": [77.9571304321289, 163.53045654296875, 1826.8447265625, 151.70924377441406, 80.30834197998047, 338.3319091796875, 268.38177490234375, 123.30481719970703, 189.24195861816406, 428.225341796875, 258.00543212890625, 281.171875, 621.0658569335938, 283.9226989746094, 63.02202224731445, 311.4739990234375, 211.5360107421875, 992.4480590820312, 231.4869384765625, 560.8338012695312, 198.52728271484375, 309.1434326171875, 249.29129028320312, 342.68206787109375, 61.03076934814453, 220.17633056640625, 2450.009521484375, 165.99220275878906, 950.962890625, 962.6619873046875, 156.9743194580078, 141.8263397216797, 1022.4301147460938, 37.50093078613281, 206.96522521972656, 220.01400756835938, 212.443603515625, 98.3851089477539, 448.0285339355469, 138.9425048828125, 448.4651794433594, 432.5032958984375, 495.1811218261719, 345.8451232910156, 245.5039825439453, 412.9864196777344, 202.0170440673828, 297.76446533203125, 532.7265014648438, 278.5806579589844, 37.671695709228516, 194.12725830078125, 31.5797176361084, 1149.6351318359375, 154.52267456054688, 919.0196533203125, 413.65386962890625, 841.3271484375, 105.00984954833984, 229.43777465820312, 64.45941925048828, 552.9246215820312, 1028.2279052734375, 43.61710739135742, 431.6595153808594, 90.9559326171875, 1303.5836181640625, 890.3626708984375, 569.5140380859375, 431.8638916015625, 2436.18310546875, 52.81706619262695, 78.6551513671875, 548.394287109375, 89.67427825927734, 487.7510986328125, 321.8439025878906, 253.6630096435547, 388.11279296875, 168.109375, 627.3142700195312, 1067.4061279296875, 1236.0352783203125, 102.42861938476562, 1180.9033203125, 220.6939697265625, 151.91041564941406, 2158.785888671875, 368.9160461425781, 1201.4212646484375, 82.80596160888672, 409.6012878417969, 77.42253875732422, 202.0304718017578, 216.16015625, 175.95596313476562, 64.39976501464844, 187.79859924316406, 189.1757049560547, 59.09212112426758, 621.359619140625, 164.95960998535156, 552.0265502929688, 710.3143310546875, 145.63583374023438, 729.1256713867188, 74.18424987792969, 367.1632995605469, 327.543701171875, 457.2006530761719, 53.2690315246582, 255.16848754882812, 358.9944763183594, 238.01922607421875, 449.8248291015625, 94.63938903808594, 238.029541015625, 286.6407775878906, 571.55126953125, 67.0068359375, 447.58367919921875, 338.4270935058594, 1413.515380859375, 677.1759643554688, 598.5073852539062, 513.616455078125, 139.0047607421875, 1081.890625, 123.90229797363281, 489.0572509765625, 66.90640258789062, 83.69025421142578, 928.8671264648438, 560.3896484375, 256.2381591796875, 1593.60888671875, 983.5131225585938, 1143.4217529296875, 58.11159133911133, 523.824462890625, 212.0817413330078, 45.092227935791016, 56.402427673339844, 631.8007202148438, 83.85343170166016, 199.72796630859375, 237.97103881835938, 193.22714233398438, 274.6974182128906, 46.50630569458008, 37.05415344238281, 278.2839660644531, 459.4448547363281, 345.9854431152344, 585.2044067382812, 102.33951568603516, 193.85865783691406, 250.27357482910156, 177.010009765625, 58.37874984741211, 465.4765930175781, 59.59326171875, 1126.5220947265625, 178.4322052001953, 163.12608337402344, 1803.5743408203125, 608.3904418945312, 869.5647583007812, 977.2542724609375, 456.4844055175781, 1031.490966796875, 449.3094177246094, 482.47723388671875, 81.26469421386719, 245.15028381347656, 66.2059326171875, 218.7720184326172, 579.5902099609375, 517.2003784179688, 900.4454345703125, 516.2110595703125, 267.52154541015625, 191.47442626953125, 448.05364990234375, 1461.58984375], \\\"yaxis\\\": \\\"y\\\"}, {\\\"alignmentgroup\\\": \\\"True\\\", \\\"bingroup\\\": \\\"x\\\", \\\"hoverlabel\\\": {\\\"namelength\\\": 0}, \\\"hovertemplate\\\": \\\"pred=%{x}<br>count=%{y}\\\", \\\"legendgroup\\\": \\\"\\\", \\\"marker\\\": {\\\"color\\\": \\\"#636efa\\\"}, \\\"name\\\": \\\"\\\", \\\"offsetgroup\\\": \\\"\\\", \\\"opacity\\\": 0.5, \\\"showlegend\\\": false, \\\"type\\\": \\\"histogram\\\", \\\"x\\\": [6.362673759460449, 72.16960906982422, 1388.348876953125, 82.78936767578125, 47.87638473510742, 226.4082794189453, 251.42002868652344, 5.385708332061768, 115.9134521484375, 406.1997375488281, 175.92445373535156, 118.74018096923828, 528.5614013671875, 233.21209716796875, 5.341862678527832, 186.14453125, 217.5664825439453, 861.478759765625, 198.43202209472656, 652.226318359375, 57.45193099975586, 258.2080383300781, 179.97752380371094, 313.23876953125, 17.139326095581055, 203.27549743652344, 1236.8450927734375, 118.83533477783203, 948.9000854492188, 903.720703125, 71.84751892089844, 62.81964874267578, 1060.1549072265625, 0.54474937915802, 107.7354965209961, 176.88182067871094, 194.77569580078125, 38.03855514526367, 382.5918884277344, 57.32658004760742, 355.5962829589844, 340.0533447265625, 485.9054870605469, 256.0960998535156, 156.12689208984375, 350.6311340332031, 82.03355407714844, 220.30755615234375, 342.6907653808594, 79.86031341552734, 0.54474937915802, 112.48202514648438, 5.010685443878174, 708.6926879882812, 111.41361999511719, 826.3145141601562, 343.635986328125, 715.0277709960938, 31.620807647705078, 109.84451293945312, 0.9095147848129272, 432.6611633300781, 792.958740234375, 44.604496002197266, 383.2724304199219, 49.10377883911133, 884.3495483398438, 843.5745239257812, 440.523193359375, 287.3283386230469, 1985.9822998046875, 17.47268295288086, 7.498619556427002, 490.8683776855469, 24.588241577148438, 433.20672607421875, 225.99978637695312, 166.49281311035156, 290.8121032714844, 103.74004364013672, 420.3087463378906, 773.67626953125, 994.7723388671875, 48.808433532714844, 927.7765502929688, 96.63218688964844, 46.760833740234375, 1623.5855712890625, 221.88133239746094, 841.69384765625, 78.56234741210938, 333.167236328125, 14.289780616760254, 56.410823822021484, 77.88280487060547, 202.30331420898438, 9.014702796936035, 7.341258525848389, 120.14944458007812, 24.68330955505371, 580.6941528320312, 74.4193115234375, 483.5474853515625, 595.630615234375, 121.47213745117188, 580.4829711914062, 80.22864532470703, 286.5853271484375, 220.0286407470703, 379.61920166015625, 14.513605117797852, 198.67262268066406, 317.6934509277344, 131.0081787109375, 394.75347900390625, 6.649993896484375, 166.26504516601562, 184.4288787841797, 656.1381225585938, 31.031658172607422, 350.5299072265625, 218.86439514160156, 936.1875, 348.2264099121094, 525.04248046875, 498.1465148925781, 46.07258605957031, 940.7135009765625, 60.18382263183594, 514.5714721679688, 5.251948356628418, 47.93795394897461, 753.2862548828125, 458.7500915527344, 135.03224182128906, 884.906494140625, 689.7902221679688, 1058.8721923828125, 0.54474937915802, 420.11846923828125, 106.72076416015625, 0.54474937915802, 25.919723510742188, 442.5283508300781, 23.090240478515625, 181.1737823486328, 134.48887634277344, 97.23138427734375, 224.32789611816406, 15.930621147155762, 25.971010208129883, 259.3730163574219, 445.3958435058594, 319.2977294921875, 487.32110595703125, 0.54474937915802, 155.53440856933594, 181.01254272460938, 94.10074615478516, 0.54474937915802, 340.5472717285156, 1.0901355743408203, 995.224853515625, 66.08694458007812, 82.86097717285156, 1390.9212646484375, 404.2516174316406, 933.0673828125, 802.8898315429688, 347.02117919921875, 863.7154541015625, 368.14520263671875, 360.5189208984375, 46.84708023071289, 174.6117401123047, 39.291839599609375, 187.39390563964844, 599.0189208984375, 480.5167236328125, 766.0553588867188, 409.70318603515625, 233.81260681152344, 89.12793731689453, 358.6405944824219, 1091.121826171875], \\\"xaxis\\\": \\\"x3\\\", \\\"yaxis\\\": \\\"y3\\\"}, {\\\"alignmentgroup\\\": \\\"True\\\", \\\"bingroup\\\": \\\"y\\\", \\\"hoverlabel\\\": {\\\"namelength\\\": 0}, \\\"hovertemplate\\\": \\\"true=%{y}<br>count=%{x}\\\", \\\"legendgroup\\\": \\\"\\\", \\\"marker\\\": {\\\"color\\\": \\\"#636efa\\\"}, \\\"name\\\": \\\"\\\", \\\"offsetgroup\\\": \\\"\\\", \\\"opacity\\\": 0.5, \\\"showlegend\\\": false, \\\"type\\\": \\\"histogram\\\", \\\"xaxis\\\": \\\"x2\\\", \\\"y\\\": [77.9571304321289, 163.53045654296875, 1826.8447265625, 151.70924377441406, 80.30834197998047, 338.3319091796875, 268.38177490234375, 123.30481719970703, 189.24195861816406, 428.225341796875, 258.00543212890625, 281.171875, 621.0658569335938, 283.9226989746094, 63.02202224731445, 311.4739990234375, 211.5360107421875, 992.4480590820312, 231.4869384765625, 560.8338012695312, 198.52728271484375, 309.1434326171875, 249.29129028320312, 342.68206787109375, 61.03076934814453, 220.17633056640625, 2450.009521484375, 165.99220275878906, 950.962890625, 962.6619873046875, 156.9743194580078, 141.8263397216797, 1022.4301147460938, 37.50093078613281, 206.96522521972656, 220.01400756835938, 212.443603515625, 98.3851089477539, 448.0285339355469, 138.9425048828125, 448.4651794433594, 432.5032958984375, 495.1811218261719, 345.8451232910156, 245.5039825439453, 412.9864196777344, 202.0170440673828, 297.76446533203125, 532.7265014648438, 278.5806579589844, 37.671695709228516, 194.12725830078125, 31.5797176361084, 1149.6351318359375, 154.52267456054688, 919.0196533203125, 413.65386962890625, 841.3271484375, 105.00984954833984, 229.43777465820312, 64.45941925048828, 552.9246215820312, 1028.2279052734375, 43.61710739135742, 431.6595153808594, 90.9559326171875, 1303.5836181640625, 890.3626708984375, 569.5140380859375, 431.8638916015625, 2436.18310546875, 52.81706619262695, 78.6551513671875, 548.394287109375, 89.67427825927734, 487.7510986328125, 321.8439025878906, 253.6630096435547, 388.11279296875, 168.109375, 627.3142700195312, 1067.4061279296875, 1236.0352783203125, 102.42861938476562, 1180.9033203125, 220.6939697265625, 151.91041564941406, 2158.785888671875, 368.9160461425781, 1201.4212646484375, 82.80596160888672, 409.6012878417969, 77.42253875732422, 202.0304718017578, 216.16015625, 175.95596313476562, 64.39976501464844, 187.79859924316406, 189.1757049560547, 59.09212112426758, 621.359619140625, 164.95960998535156, 552.0265502929688, 710.3143310546875, 145.63583374023438, 729.1256713867188, 74.18424987792969, 367.1632995605469, 327.543701171875, 457.2006530761719, 53.2690315246582, 255.16848754882812, 358.9944763183594, 238.01922607421875, 449.8248291015625, 94.63938903808594, 238.029541015625, 286.6407775878906, 571.55126953125, 67.0068359375, 447.58367919921875, 338.4270935058594, 1413.515380859375, 677.1759643554688, 598.5073852539062, 513.616455078125, 139.0047607421875, 1081.890625, 123.90229797363281, 489.0572509765625, 66.90640258789062, 83.69025421142578, 928.8671264648438, 560.3896484375, 256.2381591796875, 1593.60888671875, 983.5131225585938, 1143.4217529296875, 58.11159133911133, 523.824462890625, 212.0817413330078, 45.092227935791016, 56.402427673339844, 631.8007202148438, 83.85343170166016, 199.72796630859375, 237.97103881835938, 193.22714233398438, 274.6974182128906, 46.50630569458008, 37.05415344238281, 278.2839660644531, 459.4448547363281, 345.9854431152344, 585.2044067382812, 102.33951568603516, 193.85865783691406, 250.27357482910156, 177.010009765625, 58.37874984741211, 465.4765930175781, 59.59326171875, 1126.5220947265625, 178.4322052001953, 163.12608337402344, 1803.5743408203125, 608.3904418945312, 869.5647583007812, 977.2542724609375, 456.4844055175781, 1031.490966796875, 449.3094177246094, 482.47723388671875, 81.26469421386719, 245.15028381347656, 66.2059326171875, 218.7720184326172, 579.5902099609375, 517.2003784179688, 900.4454345703125, 516.2110595703125, 267.52154541015625, 191.47442626953125, 448.05364990234375, 1461.58984375], \\\"yaxis\\\": \\\"y2\\\"}],\\n\",\n       \"                        {\\\"barmode\\\": \\\"overlay\\\", \\\"height\\\": 800, \\\"legend\\\": {\\\"tracegroupgap\\\": 0}, \\\"margin\\\": {\\\"t\\\": 60}, \\\"template\\\": {\\\"data\\\": {\\\"bar\\\": [{\\\"error_x\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}, \\\"error_y\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}, \\\"marker\\\": {\\\"line\\\": {\\\"color\\\": \\\"#E5ECF6\\\", \\\"width\\\": 0.5}}, \\\"type\\\": \\\"bar\\\"}], \\\"barpolar\\\": [{\\\"marker\\\": {\\\"line\\\": {\\\"color\\\": \\\"#E5ECF6\\\", \\\"width\\\": 0.5}}, \\\"type\\\": \\\"barpolar\\\"}], \\\"carpet\\\": [{\\\"aaxis\\\": {\\\"endlinecolor\\\": \\\"#2a3f5f\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"minorgridcolor\\\": \\\"white\\\", \\\"startlinecolor\\\": \\\"#2a3f5f\\\"}, \\\"baxis\\\": {\\\"endlinecolor\\\": \\\"#2a3f5f\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"minorgridcolor\\\": \\\"white\\\", \\\"startlinecolor\\\": \\\"#2a3f5f\\\"}, \\\"type\\\": \\\"carpet\\\"}], \\\"choropleth\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"type\\\": \\\"choropleth\\\"}], \\\"contour\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"contour\\\"}], \\\"contourcarpet\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"type\\\": \\\"contourcarpet\\\"}], \\\"heatmap\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"heatmap\\\"}], \\\"heatmapgl\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"heatmapgl\\\"}], \\\"histogram\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"histogram\\\"}], \\\"histogram2d\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"histogram2d\\\"}], \\\"histogram2dcontour\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"histogram2dcontour\\\"}], \\\"mesh3d\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"type\\\": \\\"mesh3d\\\"}], \\\"parcoords\\\": [{\\\"line\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"parcoords\\\"}], \\\"scatter\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatter\\\"}], \\\"scatter3d\\\": [{\\\"line\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatter3d\\\"}], \\\"scattercarpet\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattercarpet\\\"}], \\\"scattergeo\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattergeo\\\"}], \\\"scattergl\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattergl\\\"}], \\\"scattermapbox\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattermapbox\\\"}], \\\"scatterpolar\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatterpolar\\\"}], \\\"scatterpolargl\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatterpolargl\\\"}], \\\"scatterternary\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatterternary\\\"}], \\\"surface\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"surface\\\"}], \\\"table\\\": [{\\\"cells\\\": {\\\"fill\\\": {\\\"color\\\": \\\"#EBF0F8\\\"}, \\\"line\\\": {\\\"color\\\": \\\"white\\\"}}, \\\"header\\\": {\\\"fill\\\": {\\\"color\\\": \\\"#C8D4E3\\\"}, \\\"line\\\": {\\\"color\\\": \\\"white\\\"}}, \\\"type\\\": \\\"table\\\"}]}, \\\"layout\\\": {\\\"annotationdefaults\\\": {\\\"arrowcolor\\\": \\\"#2a3f5f\\\", \\\"arrowhead\\\": 0, \\\"arrowwidth\\\": 1}, \\\"colorscale\\\": {\\\"diverging\\\": [[0, \\\"#8e0152\\\"], [0.1, \\\"#c51b7d\\\"], [0.2, \\\"#de77ae\\\"], [0.3, \\\"#f1b6da\\\"], [0.4, \\\"#fde0ef\\\"], [0.5, \\\"#f7f7f7\\\"], [0.6, \\\"#e6f5d0\\\"], [0.7, \\\"#b8e186\\\"], [0.8, \\\"#7fbc41\\\"], [0.9, \\\"#4d9221\\\"], [1, \\\"#276419\\\"]], \\\"sequential\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"sequentialminus\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]]}, \\\"colorway\\\": [\\\"#636efa\\\", \\\"#EF553B\\\", \\\"#00cc96\\\", \\\"#ab63fa\\\", \\\"#FFA15A\\\", \\\"#19d3f3\\\", \\\"#FF6692\\\", \\\"#B6E880\\\", \\\"#FF97FF\\\", \\\"#FECB52\\\"], \\\"font\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}, \\\"geo\\\": {\\\"bgcolor\\\": \\\"white\\\", \\\"lakecolor\\\": \\\"white\\\", \\\"landcolor\\\": \\\"#E5ECF6\\\", \\\"showlakes\\\": true, \\\"showland\\\": true, \\\"subunitcolor\\\": \\\"white\\\"}, \\\"hoverlabel\\\": {\\\"align\\\": \\\"left\\\"}, \\\"hovermode\\\": \\\"closest\\\", \\\"mapbox\\\": {\\\"style\\\": \\\"light\\\"}, \\\"paper_bgcolor\\\": \\\"white\\\", \\\"plot_bgcolor\\\": \\\"#E5ECF6\\\", \\\"polar\\\": {\\\"angularaxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}, \\\"bgcolor\\\": \\\"#E5ECF6\\\", \\\"radialaxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}}, \\\"scene\\\": {\\\"xaxis\\\": {\\\"backgroundcolor\\\": \\\"#E5ECF6\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"gridwidth\\\": 2, \\\"linecolor\\\": \\\"white\\\", \\\"showbackground\\\": true, \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\"}, \\\"yaxis\\\": {\\\"backgroundcolor\\\": \\\"#E5ECF6\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"gridwidth\\\": 2, \\\"linecolor\\\": \\\"white\\\", \\\"showbackground\\\": true, \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\"}, \\\"zaxis\\\": {\\\"backgroundcolor\\\": \\\"#E5ECF6\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"gridwidth\\\": 2, \\\"linecolor\\\": \\\"white\\\", \\\"showbackground\\\": true, \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\"}}, \\\"shapedefaults\\\": {\\\"line\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}}, \\\"ternary\\\": {\\\"aaxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}, \\\"baxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}, \\\"bgcolor\\\": \\\"#E5ECF6\\\", \\\"caxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}}, \\\"title\\\": {\\\"x\\\": 0.05}, \\\"xaxis\\\": {\\\"automargin\\\": true, \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\", \\\"zerolinewidth\\\": 2}, \\\"yaxis\\\": {\\\"automargin\\\": true, \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\", \\\"zerolinewidth\\\": 2}}}, \\\"width\\\": 800, \\\"xaxis\\\": {\\\"anchor\\\": \\\"y\\\", \\\"domain\\\": [0.0, 0.7215], \\\"title\\\": {\\\"text\\\": \\\"pred\\\"}}, \\\"xaxis2\\\": {\\\"anchor\\\": \\\"y2\\\", \\\"domain\\\": [0.7265, 0.98], \\\"matches\\\": \\\"x2\\\", \\\"showgrid\\\": true, \\\"showticklabels\\\": false}, \\\"xaxis3\\\": {\\\"anchor\\\": \\\"y3\\\", \\\"domain\\\": [0.0, 0.7215], \\\"matches\\\": \\\"x\\\", \\\"showgrid\\\": true, \\\"showticklabels\\\": false}, \\\"xaxis4\\\": {\\\"anchor\\\": \\\"y4\\\", \\\"domain\\\": [0.7265, 0.98], \\\"matches\\\": \\\"x2\\\", \\\"showgrid\\\": true, \\\"showticklabels\\\": false}, \\\"yaxis\\\": {\\\"anchor\\\": \\\"x\\\", \\\"domain\\\": [0.0, 0.7326], \\\"title\\\": {\\\"text\\\": \\\"true\\\"}}, \\\"yaxis2\\\": {\\\"anchor\\\": \\\"x2\\\", \\\"domain\\\": [0.0, 0.7326], \\\"matches\\\": \\\"y\\\", \\\"showgrid\\\": true, \\\"showticklabels\\\": false}, \\\"yaxis3\\\": {\\\"anchor\\\": \\\"x3\\\", \\\"domain\\\": [0.7426, 1.0], \\\"matches\\\": \\\"y3\\\", \\\"showgrid\\\": true, \\\"showticklabels\\\": false}, \\\"yaxis4\\\": {\\\"anchor\\\": \\\"x4\\\", \\\"domain\\\": [0.7426, 1.0], \\\"matches\\\": \\\"y3\\\", \\\"showgrid\\\": true, \\\"showticklabels\\\": false}},\\n\",\n       \"                        {\\\"responsive\\\": true}\\n\",\n       \"                    ).then(function(){\\n\",\n       \"                            \\n\",\n       \"var gd = document.getElementById('3f8ba5d1-21c7-4685-b71f-59d780d86457');\\n\",\n       \"var x = new MutationObserver(function (mutations, observer) {{\\n\",\n       \"        var display = window.getComputedStyle(gd).display;\\n\",\n       \"        if (!display || display === 'none') {{\\n\",\n       \"            console.log([gd, 'removed!']);\\n\",\n       \"            Plotly.purge(gd);\\n\",\n       \"            observer.disconnect();\\n\",\n       \"        }}\\n\",\n       \"}});\\n\",\n       \"\\n\",\n       \"// Listen for the removal of the full notebook cells\\n\",\n       \"var notebookContainer = gd.closest('#notebook-container');\\n\",\n       \"if (notebookContainer) {{\\n\",\n       \"    x.observe(notebookContainer, {childList: true});\\n\",\n       \"}}\\n\",\n       \"\\n\",\n       \"// Listen for the clearing of the current output cell\\n\",\n       \"var outputEl = gd.closest('.output');\\n\",\n       \"if (outputEl) {{\\n\",\n       \"    x.observe(outputEl, {childList: true});\\n\",\n       \"}}\\n\",\n       \"\\n\",\n       \"                        })\\n\",\n       \"                };\\n\",\n       \"                });\\n\",\n       \"            </script>\\n\",\n       \"        </div>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"y_pred, y_true = trainer.predict(dataset=val_dataset, checkpoint='pearsonr:1')\\n\",\n    \"fig = px.scatter(pd.DataFrame({'pred': y_pred.flatten(), 'true': y_true.flatten()}), x='pred', y='true', width=800, height=800, marginal_x='histogram', marginal_y='histogram')\\n\",\n    \"fig.show()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"## crystal graph cnn\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>atom_feature</th>\\n\",\n       \"      <th>neighbor_feature</th>\\n\",\n       \"      <th>neighbor_idx</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1008807</th>\\n\",\n       \"      <td>[[tensor(0.), tensor(1.), tensor(0.), tensor(0...</td>\\n\",\n       \"      <td>[[[tensor(0.), tensor(0.), tensor(0.), tensor(...</td>\\n\",\n       \"      <td>[[tensor(2), tensor(2), tensor(2), tensor(2), ...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1009640</th>\\n\",\n       \"      <td>[[tensor(1.), tensor(0.), tensor(0.), tensor(0...</td>\\n\",\n       \"      <td>[[[tensor(0.), tensor(0.), tensor(0.), tensor(...</td>\\n\",\n       \"      <td>[[tensor(1), tensor(1), tensor(1), tensor(1), ...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1016825</th>\\n\",\n       \"      <td>[[tensor(0.), tensor(0.), tensor(0.), tensor(0...</td>\\n\",\n       \"      <td>[[[tensor(1.4013e-45), tensor(2.4653e-37), ten...</td>\\n\",\n       \"      <td>[[tensor(2), tensor(3), tensor(4), tensor(2), ...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1017582</th>\\n\",\n       \"      <td>[[tensor(1.), tensor(0.), tensor(0.), tensor(0...</td>\\n\",\n       \"      <td>[[[tensor(0.), tensor(0.), tensor(0.), tensor(...</td>\\n\",\n       \"      <td>[[tensor(1), tensor(2), tensor(3), tensor(1), ...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1021511</th>\\n\",\n       \"      <td>[[tensor(0.), tensor(0.), tensor(0.), tensor(0...</td>\\n\",\n       \"      <td>[[[tensor(0.), tensor(0.), tensor(0.), tensor(...</td>\\n\",\n       \"      <td>[[tensor(1), tensor(1), tensor(1), tensor(0), ...</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                                 atom_feature  \\\\\\n\",\n       \"mp-1008807  [[tensor(0.), tensor(1.), tensor(0.), tensor(0...   \\n\",\n       \"mp-1009640  [[tensor(1.), tensor(0.), tensor(0.), tensor(0...   \\n\",\n       \"mp-1016825  [[tensor(0.), tensor(0.), tensor(0.), tensor(0...   \\n\",\n       \"mp-1017582  [[tensor(1.), tensor(0.), tensor(0.), tensor(0...   \\n\",\n       \"mp-1021511  [[tensor(0.), tensor(0.), tensor(0.), tensor(0...   \\n\",\n       \"\\n\",\n       \"                                             neighbor_feature  \\\\\\n\",\n       \"mp-1008807  [[[tensor(0.), tensor(0.), tensor(0.), tensor(...   \\n\",\n       \"mp-1009640  [[[tensor(0.), tensor(0.), tensor(0.), tensor(...   \\n\",\n       \"mp-1016825  [[[tensor(1.4013e-45), tensor(2.4653e-37), ten...   \\n\",\n       \"mp-1017582  [[[tensor(0.), tensor(0.), tensor(0.), tensor(...   \\n\",\n       \"mp-1021511  [[[tensor(0.), tensor(0.), tensor(0.), tensor(...   \\n\",\n       \"\\n\",\n       \"                                                 neighbor_idx  \\n\",\n       \"mp-1008807  [[tensor(2), tensor(2), tensor(2), tensor(2), ...  \\n\",\n       \"mp-1009640  [[tensor(1), tensor(1), tensor(1), tensor(1), ...  \\n\",\n       \"mp-1016825  [[tensor(2), tensor(3), tensor(4), tensor(2), ...  \\n\",\n       \"mp-1017582  [[tensor(1), tensor(2), tensor(3), tensor(1), ...  \\n\",\n       \"mp-1021511  [[tensor(1), tensor(1), tensor(1), tensor(0), ...  \"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>volume</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1008807</th>\\n\",\n       \"      <td>57.268924</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1009640</th>\\n\",\n       \"      <td>31.579717</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1016825</th>\\n\",\n       \"      <td>67.541269</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1017582</th>\\n\",\n       \"      <td>85.579224</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1021511</th>\\n\",\n       \"      <td>92.890725</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"               volume\\n\",\n       \"mp-1008807  57.268924\\n\",\n       \"mp-1009640  31.579717\\n\",\n       \"mp-1016825  67.541269\\n\",\n       \"mp-1017582  85.579224\\n\",\n       \"mp-1021511  92.890725\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"desc = CrystalGraphFeaturizer().transform(data['structure'])\\n\",\n    \"prop = data['volume'].to_frame()\\n\",\n    \"\\n\",\n    \"desc.head(5)\\n\",\n    \"prop.head(5)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"sp = Splitter(prop.shape[0])\\n\",\n    \"x_train, x_test, y_train, y_test = sp.split(desc, prop)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(743, 3)\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(743, 1)\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(186, 3)\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(186, 1)\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"x_train.shape\\n\",\n    \"y_train.shape\\n\",\n    \"x_test.shape\\n\",\n    \"y_test.shape\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"train_dataloader = DataLoader(CrystalGraphDataset(x_train, y_train), shuffle=True,\\n\",\n    \"                              batch_size=20, collate_fn=CrystalGraphDataset.collate_fn)\\n\",\n    \"val_dataloader = DataLoader(CrystalGraphDataset(x_test, y_test),\\n\",\n    \"                              batch_size=20, collate_fn=CrystalGraphDataset.collate_fn)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"CrystalGraphConvNet(\\n\",\n       \"  (embedding): Linear(in_features=92, out_features=128, bias=True)\\n\",\n       \"  (convs): ModuleList(\\n\",\n       \"    (0): ConvLayer(\\n\",\n       \"      (fc_full): Linear(in_features=297, out_features=256, bias=True)\\n\",\n       \"      (sigmoid): Sigmoid()\\n\",\n       \"      (softplus1): Softplus(beta=1, threshold=20)\\n\",\n       \"      (bn1): BatchNorm1d(256, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"      (bn2): BatchNorm1d(128, eps=1e-05, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"      (softplus2): Softplus(beta=1, threshold=20)\\n\",\n       \"    )\\n\",\n       \"  )\\n\",\n       \"  (conv_to_fc): Linear(in_features=128, out_features=64, bias=True)\\n\",\n       \"  (conv_to_fc_softplus): Softplus(beta=1, threshold=20)\\n\",\n       \"  (fc_out): Linear(in_features=64, out_features=1, bias=True)\\n\",\n       \")\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"cgcnn = CrystalGraphConvNet(orig_atom_fea_len=92, nbr_fea_len=41, atom_fea_len=128, h_fea_len=64, n_conv=1, n_h=1)\\n\",\n    \"cgcnn\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"trainer = Trainer(\\n\",\n    \"    model=cgcnn,\\n\",\n    \"    optimizer=Adam(lr=0.0005),\\n\",\n    \"    loss_func=MSELoss(),\\n\",\n    \"    lr_scheduler=ExponentialLR(gamma=0.99),\\n\",\n    \"    clip_grad=ClipNorm(max_norm=0.04)\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"trainer.extend(\\n\",\n    \"    TensorConverter(),\\n\",\n    \"    Validator(metrics_func=regression_metrics, early_stopping=30, pearsonr=1.0, mse=0.0, r2=0.0, mae=0.0),\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  11%|█         | 11/100 [03:06<26:49, 18.09s/it]/Users/liuchang/projects/xenonpy/xenonpy/model/training/trainer.py:390: UserWarning:\\n\",\n      \"\\n\",\n      \"Early stopping is applied: no improvement for ['pearsonr', 'mse', 'r2', 'mae'] in the last 31 iterations, finish training at iterations 11\\n\",\n      \"\\n\",\n      \"\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"trainer.fit(training_dataset=train_dataloader, validation_dataset=val_dataloader, epochs=100)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>total_iters</th>\\n\",\n       \"      <th>i_epoch</th>\\n\",\n       \"      <th>i_batch</th>\\n\",\n       \"      <th>train_loss</th>\\n\",\n       \"      <th>val_mae</th>\\n\",\n       \"      <th>val_mse</th>\\n\",\n       \"      <th>val_rmse</th>\\n\",\n       \"      <th>val_r2</th>\\n\",\n       \"      <th>val_pearsonr</th>\\n\",\n       \"      <th>val_spearmanr</th>\\n\",\n       \"      <th>val_p_value</th>\\n\",\n       \"      <th>val_max_error</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>343781.875000</td>\\n\",\n       \"      <td>500.848969</td>\\n\",\n       \"      <td>552324.3750</td>\\n\",\n       \"      <td>743.185303</td>\\n\",\n       \"      <td>-1.273074e+09</td>\\n\",\n       \"      <td>0.171313</td>\\n\",\n       \"      <td>-0.058553</td>\\n\",\n       \"      <td>0.019390</td>\\n\",\n       \"      <td>3324.069580</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>800263.812500</td>\\n\",\n       \"      <td>500.569000</td>\\n\",\n       \"      <td>552043.5000</td>\\n\",\n       \"      <td>742.996277</td>\\n\",\n       \"      <td>-1.418644e+09</td>\\n\",\n       \"      <td>0.205430</td>\\n\",\n       \"      <td>0.000609</td>\\n\",\n       \"      <td>0.004910</td>\\n\",\n       \"      <td>3323.794434</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>349451.875000</td>\\n\",\n       \"      <td>500.286285</td>\\n\",\n       \"      <td>551760.0625</td>\\n\",\n       \"      <td>742.805542</td>\\n\",\n       \"      <td>-1.600670e+09</td>\\n\",\n       \"      <td>0.241836</td>\\n\",\n       \"      <td>0.106198</td>\\n\",\n       \"      <td>0.000883</td>\\n\",\n       \"      <td>3323.517578</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>150381.171875</td>\\n\",\n       \"      <td>500.001923</td>\\n\",\n       \"      <td>551475.2500</td>\\n\",\n       \"      <td>742.613770</td>\\n\",\n       \"      <td>-1.751977e+09</td>\\n\",\n       \"      <td>0.269444</td>\\n\",\n       \"      <td>0.214699</td>\\n\",\n       \"      <td>0.000200</td>\\n\",\n       \"      <td>3323.239990</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>253343.234375</td>\\n\",\n       \"      <td>499.715851</td>\\n\",\n       \"      <td>551189.0625</td>\\n\",\n       \"      <td>742.421082</td>\\n\",\n       \"      <td>-1.777963e+09</td>\\n\",\n       \"      <td>0.283157</td>\\n\",\n       \"      <td>0.305613</td>\\n\",\n       \"      <td>0.000090</td>\\n\",\n       \"      <td>3322.961670</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"   total_iters  i_epoch  i_batch     train_loss     val_mae      val_mse  \\\\\\n\",\n       \"0            1        1        1  343781.875000  500.848969  552324.3750   \\n\",\n       \"1            2        1        2  800263.812500  500.569000  552043.5000   \\n\",\n       \"2            3        1        3  349451.875000  500.286285  551760.0625   \\n\",\n       \"3            4        1        4  150381.171875  500.001923  551475.2500   \\n\",\n       \"4            5        1        5  253343.234375  499.715851  551189.0625   \\n\",\n       \"\\n\",\n       \"     val_rmse        val_r2  val_pearsonr  val_spearmanr  val_p_value  \\\\\\n\",\n       \"0  743.185303 -1.273074e+09      0.171313      -0.058553     0.019390   \\n\",\n       \"1  742.996277 -1.418644e+09      0.205430       0.000609     0.004910   \\n\",\n       \"2  742.805542 -1.600670e+09      0.241836       0.106198     0.000883   \\n\",\n       \"3  742.613770 -1.751977e+09      0.269444       0.214699     0.000200   \\n\",\n       \"4  742.421082 -1.777963e+09      0.283157       0.305613     0.000090   \\n\",\n       \"\\n\",\n       \"   val_max_error  \\n\",\n       \"0    3324.069580  \\n\",\n       \"1    3323.794434  \\n\",\n       \"2    3323.517578  \\n\",\n       \"3    3323.239990  \\n\",\n       \"4    3322.961670  \"\n      ]\n     },\n     \"execution_count\": 12,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"trainer.step_info.head(5)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"['pearsonr', 'mse', 'r2', 'mae']\"\n      ]\n     },\n     \"execution_count\": 15,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"trainer.get_checkpoint()\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"application/vnd.plotly.v1+json\": {\n       \"config\": {\n        \"plotlyServerURL\": \"https://plot.ly\"\n       },\n       \"data\": [\n        {\n         \"hoverlabel\": {\n          \"namelength\": 0\n         },\n         \"hovertemplate\": \"total_iters=%{x}<br>train_loss=%{y}\",\n         \"legendgroup\": \"\",\n         \"line\": {\n          \"color\": \"#636efa\",\n          \"dash\": \"solid\"\n         },\n         \"mode\": \"lines\",\n         \"name\": \"\",\n         \"showlegend\": false,\n         \"type\": \"scatter\",\n         \"x\": [\n          1,\n          2,\n          3,\n          4,\n          5,\n          6,\n          7,\n          8,\n          9,\n          10,\n          11,\n          12,\n          13,\n          14,\n          15,\n          16,\n          17,\n          18,\n          19,\n          20,\n          21,\n          22,\n          23,\n          24,\n          25,\n          26,\n          27,\n          28,\n          29,\n          30,\n          31,\n          32,\n          33,\n          34,\n          35,\n          36,\n          37,\n          38,\n          39,\n          40,\n          41,\n          42,\n          43,\n          44,\n          45,\n          46,\n          47,\n          48,\n          49,\n          50,\n          51,\n          52,\n          53,\n          54,\n          55,\n          56,\n          57,\n          58,\n          59,\n          60,\n          61,\n          62,\n          63,\n          64,\n          65,\n          66,\n          67,\n          68,\n          69,\n          70,\n          71,\n          72,\n          73,\n          74,\n          75,\n          76,\n          77,\n          78,\n          79,\n          80,\n          81,\n          82,\n          83,\n          84,\n          85,\n          86,\n          87,\n          88,\n          89,\n          90,\n          91,\n          92,\n          93,\n          94,\n          95,\n          96,\n          97,\n          98,\n          99,\n          100,\n          101,\n          102,\n          103,\n          104,\n          105,\n          106,\n          107,\n          108,\n          109,\n          110,\n          111,\n          112,\n          113,\n          114,\n          115,\n          116,\n          117,\n          118,\n          119,\n          120,\n          121,\n          122,\n          123,\n          124,\n          125,\n          126,\n          127,\n          128,\n          129,\n          130,\n          131,\n          132,\n          133,\n          134,\n          135,\n          136,\n          137,\n          138,\n          139,\n          140,\n          141,\n          142,\n          143,\n          144,\n          145,\n          146,\n          147,\n          148,\n          149,\n          150,\n          151,\n          152,\n          153,\n          154,\n          155,\n          156,\n          157,\n          158,\n          159,\n          160,\n          161,\n          162,\n          163,\n          164,\n          165,\n          166,\n          167,\n          168,\n          169,\n          170,\n          171,\n          172,\n          173,\n          174,\n          175,\n          176,\n          177,\n          178,\n          179,\n          180,\n          181,\n          182,\n          183,\n          184,\n          185,\n          186,\n          187,\n          188,\n          189,\n          190,\n          191,\n          192,\n          193,\n          194,\n          195,\n          196,\n          197,\n          198,\n          199,\n          200,\n          201,\n          202,\n          203,\n          204,\n          205,\n          206,\n          207,\n          208,\n          209,\n          210,\n          211,\n          212,\n          213,\n          214,\n          215,\n          216,\n          217,\n          218,\n          219,\n          220,\n          221,\n          222,\n          223,\n          224,\n          225,\n          226,\n          227,\n          228,\n          229,\n          230,\n          231,\n          232,\n          233,\n          234,\n          235,\n          236,\n          237,\n          238,\n          239,\n          240,\n          241,\n          242,\n          243,\n          244,\n          245,\n          246,\n          247,\n          248,\n          249,\n          250,\n          251,\n          252,\n          253,\n          254,\n          255,\n          256,\n          257,\n          258,\n          259,\n          260,\n          261,\n          262,\n          263,\n          264,\n          265,\n          266,\n          267,\n          268,\n          269,\n          270,\n          271,\n          272,\n          273,\n          274,\n          275,\n          276,\n          277,\n          278,\n          279,\n          280,\n          281,\n          282,\n          283,\n          284,\n          285,\n          286,\n          287,\n          288,\n          289,\n          290,\n          291,\n          292,\n          293,\n          294,\n          295,\n          296,\n          297,\n          298,\n          299,\n          300,\n          301,\n          302,\n          303,\n          304,\n          305,\n          306,\n          307,\n          308,\n          309,\n          310,\n          311,\n          312,\n          313,\n          314,\n          315,\n          316,\n          317,\n          318,\n          319,\n          320,\n          321,\n          322,\n          323,\n          324,\n          325,\n          326,\n          327,\n          328,\n          329,\n          330,\n          331,\n          332,\n          333,\n          334,\n          335,\n          336,\n          337,\n          338,\n          339,\n          340,\n          341,\n          342,\n          343,\n          344,\n          345,\n          346,\n          347,\n          348,\n          349,\n          350,\n          351,\n          352,\n          353,\n          354,\n          355,\n          356,\n          357,\n          358,\n          359,\n          360,\n          361,\n          362,\n          363,\n          364,\n          365,\n          366,\n          367,\n          368,\n          369,\n          370,\n          371,\n          372,\n          373,\n          374,\n          375,\n          376,\n          377,\n          378,\n          379,\n          380,\n          381,\n          382,\n          383,\n          384,\n          385,\n          386,\n          387,\n          388,\n          389,\n          390,\n          391,\n          392,\n          393,\n          394,\n          395,\n          396,\n          397,\n          398,\n          399,\n          400,\n          401,\n          402,\n          403,\n          404,\n          405,\n          406,\n          407,\n          408,\n          409,\n          410,\n          411,\n          412,\n          413\n         ],\n         \"xaxis\": \"x\",\n         \"y\": [\n          343781.875,\n          800263.8125,\n          349451.875,\n          150381.171875,\n          253343.234375,\n          861451.8125,\n          313984.5,\n          453822.3125,\n          202380.71875,\n          561188.3125,\n          221984.046875,\n          541613.6875,\n          220824.203125,\n          308964.75,\n          521787.8125,\n          565586.9375,\n          226752.25,\n          184605.484375,\n          220704.140625,\n          719571.125,\n          539442.5625,\n          201079.3125,\n          502183.65625,\n          950444.9375,\n          805659.4375,\n          646142.0625,\n          446282.125,\n          408370,\n          229075.78125,\n          419343.375,\n          472849.3125,\n          167213.75,\n          399212.34375,\n          383887.21875,\n          410071.65625,\n          768815.25,\n          152109.171875,\n          1471850,\n          219961.375,\n          321375.4375,\n          200189.671875,\n          439656.09375,\n          483675.875,\n          514446.34375,\n          754356.625,\n          321063.96875,\n          505113.125,\n          598232.75,\n          355015.09375,\n          757449.875,\n          903340.25,\n          496566.3125,\n          320610.25,\n          411133.25,\n          151623.0625,\n          306209.6875,\n          199780.265625,\n          176773.515625,\n          499319,\n          108387.1953125,\n          470975.6875,\n          582843.625,\n          438845.8125,\n          466212.375,\n          489251.96875,\n          242946.21875,\n          271755.25,\n          349339.375,\n          282152.46875,\n          200502.484375,\n          614283.25,\n          299912.71875,\n          229827.234375,\n          453262.65625,\n          154147.625,\n          10791.619140625,\n          244683.390625,\n          104567.6640625,\n          111487.1796875,\n          224060.65625,\n          240098.65625,\n          325525,\n          272777.96875,\n          281611.15625,\n          418177,\n          355498.03125,\n          389156.75,\n          91254.4375,\n          403710,\n          249466.53125,\n          245549.953125,\n          337371.1875,\n          112068.1640625,\n          551228.1875,\n          190981.453125,\n          406325.125,\n          184910.28125,\n          236079.4375,\n          709988.3125,\n          183857.515625,\n          149188.296875,\n          56714.4609375,\n          81950.75,\n          93745.890625,\n          314608.3125,\n          258347.828125,\n          494679.84375,\n          281855.84375,\n          150927.953125,\n          494029.59375,\n          198997.984375,\n          205008.53125,\n          117865.6640625,\n          84403.484375,\n          727030.1875,\n          41850.5390625,\n          156212.9375,\n          75809.53125,\n          95838.9296875,\n          384112.96875,\n          142494.40625,\n          354383.40625,\n          94398.28125,\n          334600.0625,\n          250479.640625,\n          98728.9921875,\n          46337.9453125,\n          113825.8203125,\n          305058.15625,\n          76894.09375,\n          440071.96875,\n          385498.21875,\n          91280.078125,\n          201532.21875,\n          82070.3203125,\n          76402.609375,\n          327023.1875,\n          269817.5,\n          71946.3671875,\n          181864.859375,\n          198332.953125,\n          222651.296875,\n          196541.3125,\n          300878.875,\n          106691.4921875,\n          218388.203125,\n          244809.09375,\n          412290.46875,\n          99347.1171875,\n          173767.984375,\n          317600.8125,\n          41716.5,\n          800861.625,\n          164020.703125,\n          28894.5546875,\n          138751.46875,\n          422955.90625,\n          194781.1875,\n          62888.25390625,\n          159697.234375,\n          320242.5,\n          461398.84375,\n          46234.328125,\n          174753.859375,\n          245482.6875,\n          129150.0078125,\n          25610.5234375,\n          210207.09375,\n          223650.109375,\n          384821.3125,\n          107638.40625,\n          571673.5,\n          195565.25,\n          96900.875,\n          443706.5,\n          81713.0078125,\n          210963.4375,\n          196097.703125,\n          101677.3125,\n          56494.30859375,\n          222216.515625,\n          271377.40625,\n          91713.578125,\n          58719.4609375,\n          316840.3125,\n          126452.8671875,\n          214128.484375,\n          73587.1875,\n          193846.796875,\n          45070.69921875,\n          414528.5625,\n          527019.1875,\n          89232.328125,\n          118468.1875,\n          78454.1484375,\n          91985.046875,\n          762853,\n          152785.5625,\n          128678.453125,\n          153069.484375,\n          109525.3515625,\n          197222.109375,\n          95487.4453125,\n          397370.09375,\n          214631.609375,\n          166827.25,\n          97735.578125,\n          277221.84375,\n          72306.421875,\n          78840.7109375,\n          248516.578125,\n          346963.15625,\n          444730.03125,\n          96608.03125,\n          171011.34375,\n          360682.09375,\n          101620.6875,\n          84127.3515625,\n          219395.9375,\n          201449.625,\n          173525.84375,\n          145238.015625,\n          148008.921875,\n          99224.9765625,\n          215858.859375,\n          99267.4921875,\n          149329.921875,\n          95610.5234375,\n          911755.875,\n          197053.078125,\n          278365.28125,\n          120141.6640625,\n          462626.03125,\n          467362.09375,\n          84670.4453125,\n          63672.98046875,\n          386658.40625,\n          454301.6875,\n          74303.6875,\n          62910.203125,\n          107180.6484375,\n          152140.640625,\n          47101.3515625,\n          16062.0390625,\n          270319.4375,\n          60099.5859375,\n          60260.27734375,\n          264507.625,\n          310965.46875,\n          215664.515625,\n          159240.265625,\n          142202.875,\n          235830.421875,\n          170152.375,\n          93997.6171875,\n          278579.15625,\n          370588.65625,\n          186472.171875,\n          104227.765625,\n          72532.2109375,\n          278535.96875,\n          149391.25,\n          105371.7578125,\n          69666.2890625,\n          147826.65625,\n          74659.3515625,\n          638882.3125,\n          54139.921875,\n          84437.109375,\n          162351.3125,\n          131071.671875,\n          331226.15625,\n          78755.59375,\n          221957.1875,\n          557183.6875,\n          144661.875,\n          401646.34375,\n          179730.953125,\n          242493.25,\n          53886.22265625,\n          118895.8671875,\n          63369.734375,\n          478823.25,\n          434438.4375,\n          299326.75,\n          183795.828125,\n          126305.0234375,\n          90419.484375,\n          228428.828125,\n          460522.5,\n          140663.03125,\n          102688.40625,\n          91892.1796875,\n          244538.828125,\n          73729.015625,\n          183534.484375,\n          251247.296875,\n          115436.59375,\n          148366.421875,\n          42124.20703125,\n          75055.609375,\n          64803.78125,\n          60906.5625,\n          89473.5703125,\n          372819.125,\n          350520.125,\n          143917.0625,\n          294237.03125,\n          47254.58203125,\n          251023.453125,\n          881821,\n          149066.0625,\n          124887.71875,\n          128308.4296875,\n          124121.3828125,\n          27687.380859375,\n          208121.953125,\n          177727.125,\n          93080.65625,\n          238828.03125,\n          193713.296875,\n          125220.90625,\n          59278.86328125,\n          260784.953125,\n          80695.8828125,\n          102981.71875,\n          285843.125,\n          178693.390625,\n          211687.296875,\n          191037.515625,\n          254842.671875,\n          180746.90625,\n          376487.125,\n          229398.5,\n          98206.4453125,\n          88429.59375,\n          237726.59375,\n          91246.5625,\n          81723.828125,\n          310348.5625,\n          137467.375,\n          487972.96875,\n          549783.0625,\n          18083.896484375,\n          65673.3984375,\n          46723.30859375,\n          156393.40625,\n          104585.5,\n          85965.859375,\n          126578.90625,\n          195865.734375,\n          85753.890625,\n          184383.984375,\n          40770.0234375,\n          244717.265625,\n          226229.546875,\n          111435.015625,\n          38619.671875,\n          160744.796875,\n          245200.640625,\n          218784.890625,\n          180978.140625,\n          307856.3125,\n          123101.5625,\n          415150.46875,\n          131160.46875,\n          372869.375,\n          81586.3203125,\n          182296.375,\n          108284.0078125,\n          156474.59375,\n          278847.65625,\n          54747.49609375,\n          203731.1875,\n          57907.9375,\n          234304.296875,\n          412172.875,\n          249820.546875,\n          461660.6875,\n          238416.875,\n          655399.0625,\n          223793.09375,\n          139827.125,\n          39658.71484375,\n          242919.015625,\n          583587.8125,\n          95881.078125,\n          101053.921875,\n          163807.796875,\n          246688.875,\n          94178.5,\n          80377.578125,\n          177394.796875,\n          152633.84375,\n          158879.34375,\n          73939.6484375,\n          37503.12890625,\n          171385.625,\n          286502.71875,\n          111846.0625,\n          162476.875,\n          76040.53125,\n          126913.4453125,\n          107687.4921875,\n          79334.5703125,\n          127392.8125,\n          359180.15625,\n          297980.6875,\n          49267.5703125,\n          105253.953125,\n          237949.109375,\n          228726.015625,\n          357452.46875\n         ],\n         \"yaxis\": \"y\"\n        }\n       ],\n       \"layout\": {\n        \"autosize\": true,\n        \"legend\": {\n         \"tracegroupgap\": 0\n        },\n        \"margin\": {\n         \"t\": 60\n        },\n        \"template\": {\n         \"data\": {\n          \"bar\": [\n           {\n            \"error_x\": {\n             \"color\": \"#2a3f5f\"\n            },\n            \"error_y\": {\n             \"color\": \"#2a3f5f\"\n            },\n            \"marker\": {\n             \"line\": {\n              \"color\": \"#E5ECF6\",\n              \"width\": 0.5\n             }\n            },\n            \"type\": \"bar\"\n           }\n          ],\n          \"barpolar\": [\n           {\n            \"marker\": {\n             \"line\": {\n              \"color\": \"#E5ECF6\",\n              \"width\": 0.5\n             }\n            },\n            \"type\": \"barpolar\"\n           }\n          ],\n          \"carpet\": [\n           {\n            \"aaxis\": {\n             \"endlinecolor\": \"#2a3f5f\",\n             \"gridcolor\": \"white\",\n             \"linecolor\": \"white\",\n             \"minorgridcolor\": \"white\",\n             \"startlinecolor\": \"#2a3f5f\"\n            },\n            \"baxis\": {\n             \"endlinecolor\": \"#2a3f5f\",\n             \"gridcolor\": \"white\",\n             \"linecolor\": \"white\",\n             \"minorgridcolor\": \"white\",\n             \"startlinecolor\": \"#2a3f5f\"\n            },\n            \"type\": \"carpet\"\n           }\n          ],\n          \"choropleth\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"type\": \"choropleth\"\n           }\n          ],\n          \"contour\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"contour\"\n           }\n          ],\n          \"contourcarpet\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"type\": \"contourcarpet\"\n           }\n          ],\n          \"heatmap\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"heatmap\"\n           }\n          ],\n          \"heatmapgl\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"heatmapgl\"\n           }\n          ],\n          \"histogram\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"histogram\"\n           }\n          ],\n          \"histogram2d\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"histogram2d\"\n           }\n          ],\n          \"histogram2dcontour\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"histogram2dcontour\"\n           }\n          ],\n          \"mesh3d\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"type\": \"mesh3d\"\n           }\n          ],\n          \"parcoords\": [\n           {\n            \"line\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"parcoords\"\n           }\n          ],\n          \"scatter\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatter\"\n           }\n          ],\n          \"scatter3d\": [\n           {\n            \"line\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatter3d\"\n           }\n          ],\n          \"scattercarpet\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattercarpet\"\n           }\n          ],\n          \"scattergeo\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattergeo\"\n           }\n          ],\n          \"scattergl\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattergl\"\n           }\n          ],\n          \"scattermapbox\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattermapbox\"\n           }\n          ],\n          \"scatterpolar\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatterpolar\"\n           }\n          ],\n          \"scatterpolargl\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatterpolargl\"\n           }\n          ],\n          \"scatterternary\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatterternary\"\n           }\n          ],\n          \"surface\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"surface\"\n           }\n          ],\n          \"table\": [\n           {\n            \"cells\": {\n             \"fill\": {\n              \"color\": \"#EBF0F8\"\n             },\n             \"line\": {\n              \"color\": \"white\"\n             }\n            },\n            \"header\": {\n             \"fill\": {\n              \"color\": \"#C8D4E3\"\n             },\n             \"line\": {\n              \"color\": \"white\"\n             }\n            },\n            \"type\": \"table\"\n           }\n          ]\n         },\n         \"layout\": {\n          \"annotationdefaults\": {\n           \"arrowcolor\": \"#2a3f5f\",\n           \"arrowhead\": 0,\n           \"arrowwidth\": 1\n          },\n          \"colorscale\": {\n           \"diverging\": [\n            [\n             0,\n             \"#8e0152\"\n            ],\n            [\n             0.1,\n             \"#c51b7d\"\n            ],\n            [\n             0.2,\n             \"#de77ae\"\n            ],\n            [\n             0.3,\n             \"#f1b6da\"\n            ],\n            [\n             0.4,\n             \"#fde0ef\"\n            ],\n            [\n             0.5,\n             \"#f7f7f7\"\n            ],\n            [\n             0.6,\n             \"#e6f5d0\"\n            ],\n            [\n             0.7,\n             \"#b8e186\"\n            ],\n            [\n             0.8,\n             \"#7fbc41\"\n            ],\n            [\n             0.9,\n             \"#4d9221\"\n            ],\n            [\n             1,\n             \"#276419\"\n            ]\n           ],\n           \"sequential\": [\n            [\n             0,\n             \"#0d0887\"\n            ],\n            [\n             0.1111111111111111,\n             \"#46039f\"\n            ],\n            [\n             0.2222222222222222,\n             \"#7201a8\"\n            ],\n            [\n             0.3333333333333333,\n             \"#9c179e\"\n            ],\n            [\n             0.4444444444444444,\n             \"#bd3786\"\n            ],\n            [\n             0.5555555555555556,\n             \"#d8576b\"\n            ],\n            [\n             0.6666666666666666,\n             \"#ed7953\"\n            ],\n            [\n             0.7777777777777778,\n             \"#fb9f3a\"\n            ],\n            [\n             0.8888888888888888,\n             \"#fdca26\"\n            ],\n            [\n             1,\n             \"#f0f921\"\n            ]\n           ],\n           \"sequentialminus\": [\n            [\n             0,\n             \"#0d0887\"\n            ],\n            [\n             0.1111111111111111,\n             \"#46039f\"\n            ],\n            [\n             0.2222222222222222,\n             \"#7201a8\"\n            ],\n            [\n             0.3333333333333333,\n             \"#9c179e\"\n            ],\n            [\n             0.4444444444444444,\n             \"#bd3786\"\n            ],\n            [\n             0.5555555555555556,\n             \"#d8576b\"\n            ],\n            [\n             0.6666666666666666,\n             \"#ed7953\"\n            ],\n            [\n             0.7777777777777778,\n             \"#fb9f3a\"\n            ],\n            [\n             0.8888888888888888,\n             \"#fdca26\"\n            ],\n            [\n             1,\n             \"#f0f921\"\n            ]\n           ]\n          },\n          \"colorway\": [\n           \"#636efa\",\n           \"#EF553B\",\n           \"#00cc96\",\n           \"#ab63fa\",\n           \"#FFA15A\",\n           \"#19d3f3\",\n           \"#FF6692\",\n           \"#B6E880\",\n           \"#FF97FF\",\n           \"#FECB52\"\n          ],\n          \"font\": {\n           \"color\": \"#2a3f5f\"\n          },\n          \"geo\": {\n           \"bgcolor\": \"white\",\n           \"lakecolor\": \"white\",\n           \"landcolor\": \"#E5ECF6\",\n           \"showlakes\": true,\n           \"showland\": true,\n           \"subunitcolor\": \"white\"\n          },\n          \"hoverlabel\": {\n           \"align\": \"left\"\n          },\n          \"hovermode\": \"closest\",\n          \"mapbox\": {\n           \"style\": \"light\"\n          },\n          \"paper_bgcolor\": \"white\",\n          \"plot_bgcolor\": \"#E5ECF6\",\n          \"polar\": {\n           \"angularaxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           },\n           \"bgcolor\": \"#E5ECF6\",\n           \"radialaxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           }\n          },\n          \"scene\": {\n           \"xaxis\": {\n            \"backgroundcolor\": \"#E5ECF6\",\n            \"gridcolor\": \"white\",\n            \"gridwidth\": 2,\n            \"linecolor\": \"white\",\n            \"showbackground\": true,\n            \"ticks\": \"\",\n            \"zerolinecolor\": \"white\"\n           },\n           \"yaxis\": {\n            \"backgroundcolor\": \"#E5ECF6\",\n            \"gridcolor\": \"white\",\n            \"gridwidth\": 2,\n            \"linecolor\": \"white\",\n            \"showbackground\": true,\n            \"ticks\": \"\",\n            \"zerolinecolor\": \"white\"\n           },\n           \"zaxis\": {\n            \"backgroundcolor\": \"#E5ECF6\",\n            \"gridcolor\": \"white\",\n            \"gridwidth\": 2,\n            \"linecolor\": \"white\",\n            \"showbackground\": true,\n            \"ticks\": \"\",\n            \"zerolinecolor\": \"white\"\n           }\n          },\n          \"shapedefaults\": {\n           \"line\": {\n            \"color\": \"#2a3f5f\"\n           }\n          },\n          \"ternary\": {\n           \"aaxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           },\n           \"baxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           },\n           \"bgcolor\": \"#E5ECF6\",\n           \"caxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           }\n          },\n          \"title\": {\n           \"x\": 0.05\n          },\n          \"xaxis\": {\n           \"automargin\": true,\n           \"gridcolor\": \"white\",\n           \"linecolor\": \"white\",\n           \"ticks\": \"\",\n           \"zerolinecolor\": \"white\",\n           \"zerolinewidth\": 2\n          },\n          \"yaxis\": {\n           \"automargin\": true,\n           \"gridcolor\": \"white\",\n           \"linecolor\": \"white\",\n           \"ticks\": \"\",\n           \"zerolinecolor\": \"white\",\n           \"zerolinewidth\": 2\n          }\n         }\n        },\n        \"xaxis\": {\n         \"anchor\": \"y\",\n         \"autorange\": true,\n         \"domain\": [\n          0,\n          0.98\n         ],\n         \"range\": [\n          1,\n          413\n         ],\n         \"title\": {\n          \"text\": \"total_iters\"\n         },\n         \"type\": \"linear\"\n        },\n        \"yaxis\": {\n         \"anchor\": \"x\",\n         \"autorange\": true,\n         \"domain\": [\n          0,\n          1\n         ],\n         \"range\": [\n          -70378.29090711806,\n          1553019.910047743\n         ],\n         \"title\": {\n          \"text\": \"train_loss\"\n         },\n         \"type\": \"linear\"\n        }\n       }\n      },\n      \"image/png\": \"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\",\n      \"text/html\": [\n       \"<div>\\n\",\n       \"        \\n\",\n       \"        \\n\",\n       \"            <div id=\\\"90139608-598d-42e9-9ad9-2abce461d958\\\" class=\\\"plotly-graph-div\\\" style=\\\"height:600px; width:100%;\\\"></div>\\n\",\n       \"            <script type=\\\"text/javascript\\\">\\n\",\n       \"                require([\\\"plotly\\\"], function(Plotly) {\\n\",\n       \"                    window.PLOTLYENV=window.PLOTLYENV || {};\\n\",\n       \"                    \\n\",\n       \"                if (document.getElementById(\\\"90139608-598d-42e9-9ad9-2abce461d958\\\")) {\\n\",\n       \"                    Plotly.newPlot(\\n\",\n       \"                        '90139608-598d-42e9-9ad9-2abce461d958',\\n\",\n       \"                        [{\\\"hoverlabel\\\": {\\\"namelength\\\": 0}, \\\"hovertemplate\\\": \\\"total_iters=%{x}<br>train_loss=%{y}\\\", \\\"legendgroup\\\": \\\"\\\", \\\"line\\\": {\\\"color\\\": \\\"#636efa\\\", \\\"dash\\\": \\\"solid\\\"}, \\\"mode\\\": \\\"lines\\\", \\\"name\\\": \\\"\\\", \\\"showlegend\\\": false, \\\"type\\\": \\\"scatter\\\", \\\"x\\\": [1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27, 28, 29, 30, 31, 32, 33, 34, 35, 36, 37, 38, 39, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49, 50, 51, 52, 53, 54, 55, 56, 57, 58, 59, 60, 61, 62, 63, 64, 65, 66, 67, 68, 69, 70, 71, 72, 73, 74, 75, 76, 77, 78, 79, 80, 81, 82, 83, 84, 85, 86, 87, 88, 89, 90, 91, 92, 93, 94, 95, 96, 97, 98, 99, 100, 101, 102, 103, 104, 105, 106, 107, 108, 109, 110, 111, 112, 113, 114, 115, 116, 117, 118, 119, 120, 121, 122, 123, 124, 125, 126, 127, 128, 129, 130, 131, 132, 133, 134, 135, 136, 137, 138, 139, 140, 141, 142, 143, 144, 145, 146, 147, 148, 149, 150, 151, 152, 153, 154, 155, 156, 157, 158, 159, 160, 161, 162, 163, 164, 165, 166, 167, 168, 169, 170, 171, 172, 173, 174, 175, 176, 177, 178, 179, 180, 181, 182, 183, 184, 185, 186, 187, 188, 189, 190, 191, 192, 193, 194, 195, 196, 197, 198, 199, 200, 201, 202, 203, 204, 205, 206, 207, 208, 209, 210, 211, 212, 213, 214, 215, 216, 217, 218, 219, 220, 221, 222, 223, 224, 225, 226, 227, 228, 229, 230, 231, 232, 233, 234, 235, 236, 237, 238, 239, 240, 241, 242, 243, 244, 245, 246, 247, 248, 249, 250, 251, 252, 253, 254, 255, 256, 257, 258, 259, 260, 261, 262, 263, 264, 265, 266, 267, 268, 269, 270, 271, 272, 273, 274, 275, 276, 277, 278, 279, 280, 281, 282, 283, 284, 285, 286, 287, 288, 289, 290, 291, 292, 293, 294, 295, 296, 297, 298, 299, 300, 301, 302, 303, 304, 305, 306, 307, 308, 309, 310, 311, 312, 313, 314, 315, 316, 317, 318, 319, 320, 321, 322, 323, 324, 325, 326, 327, 328, 329, 330, 331, 332, 333, 334, 335, 336, 337, 338, 339, 340, 341, 342, 343, 344, 345, 346, 347, 348, 349, 350, 351, 352, 353, 354, 355, 356, 357, 358, 359, 360, 361, 362, 363, 364, 365, 366, 367, 368, 369, 370, 371, 372, 373, 374, 375, 376, 377, 378, 379, 380, 381, 382, 383, 384, 385, 386, 387, 388, 389, 390, 391, 392, 393, 394, 395, 396, 397, 398, 399, 400, 401, 402, 403, 404, 405, 406, 407, 408, 409, 410, 411, 412, 413], \\\"xaxis\\\": \\\"x\\\", \\\"y\\\": [343781.875, 800263.8125, 349451.875, 150381.171875, 253343.234375, 861451.8125, 313984.5, 453822.3125, 202380.71875, 561188.3125, 221984.046875, 541613.6875, 220824.203125, 308964.75, 521787.8125, 565586.9375, 226752.25, 184605.484375, 220704.140625, 719571.125, 539442.5625, 201079.3125, 502183.65625, 950444.9375, 805659.4375, 646142.0625, 446282.125, 408370.0, 229075.78125, 419343.375, 472849.3125, 167213.75, 399212.34375, 383887.21875, 410071.65625, 768815.25, 152109.171875, 1471850.0, 219961.375, 321375.4375, 200189.671875, 439656.09375, 483675.875, 514446.34375, 754356.625, 321063.96875, 505113.125, 598232.75, 355015.09375, 757449.875, 903340.25, 496566.3125, 320610.25, 411133.25, 151623.0625, 306209.6875, 199780.265625, 176773.515625, 499319.0, 108387.1953125, 470975.6875, 582843.625, 438845.8125, 466212.375, 489251.96875, 242946.21875, 271755.25, 349339.375, 282152.46875, 200502.484375, 614283.25, 299912.71875, 229827.234375, 453262.65625, 154147.625, 10791.619140625, 244683.390625, 104567.6640625, 111487.1796875, 224060.65625, 240098.65625, 325525.0, 272777.96875, 281611.15625, 418177.0, 355498.03125, 389156.75, 91254.4375, 403710.0, 249466.53125, 245549.953125, 337371.1875, 112068.1640625, 551228.1875, 190981.453125, 406325.125, 184910.28125, 236079.4375, 709988.3125, 183857.515625, 149188.296875, 56714.4609375, 81950.75, 93745.890625, 314608.3125, 258347.828125, 494679.84375, 281855.84375, 150927.953125, 494029.59375, 198997.984375, 205008.53125, 117865.6640625, 84403.484375, 727030.1875, 41850.5390625, 156212.9375, 75809.53125, 95838.9296875, 384112.96875, 142494.40625, 354383.40625, 94398.28125, 334600.0625, 250479.640625, 98728.9921875, 46337.9453125, 113825.8203125, 305058.15625, 76894.09375, 440071.96875, 385498.21875, 91280.078125, 201532.21875, 82070.3203125, 76402.609375, 327023.1875, 269817.5, 71946.3671875, 181864.859375, 198332.953125, 222651.296875, 196541.3125, 300878.875, 106691.4921875, 218388.203125, 244809.09375, 412290.46875, 99347.1171875, 173767.984375, 317600.8125, 41716.5, 800861.625, 164020.703125, 28894.5546875, 138751.46875, 422955.90625, 194781.1875, 62888.25390625, 159697.234375, 320242.5, 461398.84375, 46234.328125, 174753.859375, 245482.6875, 129150.0078125, 25610.5234375, 210207.09375, 223650.109375, 384821.3125, 107638.40625, 571673.5, 195565.25, 96900.875, 443706.5, 81713.0078125, 210963.4375, 196097.703125, 101677.3125, 56494.30859375, 222216.515625, 271377.40625, 91713.578125, 58719.4609375, 316840.3125, 126452.8671875, 214128.484375, 73587.1875, 193846.796875, 45070.69921875, 414528.5625, 527019.1875, 89232.328125, 118468.1875, 78454.1484375, 91985.046875, 762853.0, 152785.5625, 128678.453125, 153069.484375, 109525.3515625, 197222.109375, 95487.4453125, 397370.09375, 214631.609375, 166827.25, 97735.578125, 277221.84375, 72306.421875, 78840.7109375, 248516.578125, 346963.15625, 444730.03125, 96608.03125, 171011.34375, 360682.09375, 101620.6875, 84127.3515625, 219395.9375, 201449.625, 173525.84375, 145238.015625, 148008.921875, 99224.9765625, 215858.859375, 99267.4921875, 149329.921875, 95610.5234375, 911755.875, 197053.078125, 278365.28125, 120141.6640625, 462626.03125, 467362.09375, 84670.4453125, 63672.98046875, 386658.40625, 454301.6875, 74303.6875, 62910.203125, 107180.6484375, 152140.640625, 47101.3515625, 16062.0390625, 270319.4375, 60099.5859375, 60260.27734375, 264507.625, 310965.46875, 215664.515625, 159240.265625, 142202.875, 235830.421875, 170152.375, 93997.6171875, 278579.15625, 370588.65625, 186472.171875, 104227.765625, 72532.2109375, 278535.96875, 149391.25, 105371.7578125, 69666.2890625, 147826.65625, 74659.3515625, 638882.3125, 54139.921875, 84437.109375, 162351.3125, 131071.671875, 331226.15625, 78755.59375, 221957.1875, 557183.6875, 144661.875, 401646.34375, 179730.953125, 242493.25, 53886.22265625, 118895.8671875, 63369.734375, 478823.25, 434438.4375, 299326.75, 183795.828125, 126305.0234375, 90419.484375, 228428.828125, 460522.5, 140663.03125, 102688.40625, 91892.1796875, 244538.828125, 73729.015625, 183534.484375, 251247.296875, 115436.59375, 148366.421875, 42124.20703125, 75055.609375, 64803.78125, 60906.5625, 89473.5703125, 372819.125, 350520.125, 143917.0625, 294237.03125, 47254.58203125, 251023.453125, 881821.0, 149066.0625, 124887.71875, 128308.4296875, 124121.3828125, 27687.380859375, 208121.953125, 177727.125, 93080.65625, 238828.03125, 193713.296875, 125220.90625, 59278.86328125, 260784.953125, 80695.8828125, 102981.71875, 285843.125, 178693.390625, 211687.296875, 191037.515625, 254842.671875, 180746.90625, 376487.125, 229398.5, 98206.4453125, 88429.59375, 237726.59375, 91246.5625, 81723.828125, 310348.5625, 137467.375, 487972.96875, 549783.0625, 18083.896484375, 65673.3984375, 46723.30859375, 156393.40625, 104585.5, 85965.859375, 126578.90625, 195865.734375, 85753.890625, 184383.984375, 40770.0234375, 244717.265625, 226229.546875, 111435.015625, 38619.671875, 160744.796875, 245200.640625, 218784.890625, 180978.140625, 307856.3125, 123101.5625, 415150.46875, 131160.46875, 372869.375, 81586.3203125, 182296.375, 108284.0078125, 156474.59375, 278847.65625, 54747.49609375, 203731.1875, 57907.9375, 234304.296875, 412172.875, 249820.546875, 461660.6875, 238416.875, 655399.0625, 223793.09375, 139827.125, 39658.71484375, 242919.015625, 583587.8125, 95881.078125, 101053.921875, 163807.796875, 246688.875, 94178.5, 80377.578125, 177394.796875, 152633.84375, 158879.34375, 73939.6484375, 37503.12890625, 171385.625, 286502.71875, 111846.0625, 162476.875, 76040.53125, 126913.4453125, 107687.4921875, 79334.5703125, 127392.8125, 359180.15625, 297980.6875, 49267.5703125, 105253.953125, 237949.109375, 228726.015625, 357452.46875], \\\"yaxis\\\": \\\"y\\\"}],\\n\",\n       \"                        {\\\"height\\\": 600, \\\"legend\\\": {\\\"tracegroupgap\\\": 0}, \\\"margin\\\": {\\\"t\\\": 60}, \\\"template\\\": {\\\"data\\\": {\\\"bar\\\": [{\\\"error_x\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}, \\\"error_y\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}, \\\"marker\\\": {\\\"line\\\": {\\\"color\\\": \\\"#E5ECF6\\\", \\\"width\\\": 0.5}}, \\\"type\\\": \\\"bar\\\"}], \\\"barpolar\\\": [{\\\"marker\\\": {\\\"line\\\": {\\\"color\\\": \\\"#E5ECF6\\\", \\\"width\\\": 0.5}}, \\\"type\\\": \\\"barpolar\\\"}], \\\"carpet\\\": [{\\\"aaxis\\\": {\\\"endlinecolor\\\": \\\"#2a3f5f\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"minorgridcolor\\\": \\\"white\\\", \\\"startlinecolor\\\": \\\"#2a3f5f\\\"}, \\\"baxis\\\": {\\\"endlinecolor\\\": \\\"#2a3f5f\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"minorgridcolor\\\": \\\"white\\\", \\\"startlinecolor\\\": \\\"#2a3f5f\\\"}, \\\"type\\\": \\\"carpet\\\"}], \\\"choropleth\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"type\\\": \\\"choropleth\\\"}], \\\"contour\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"contour\\\"}], \\\"contourcarpet\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"type\\\": \\\"contourcarpet\\\"}], \\\"heatmap\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"heatmap\\\"}], \\\"heatmapgl\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"heatmapgl\\\"}], \\\"histogram\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"histogram\\\"}], \\\"histogram2d\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"histogram2d\\\"}], \\\"histogram2dcontour\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"histogram2dcontour\\\"}], \\\"mesh3d\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"type\\\": \\\"mesh3d\\\"}], \\\"parcoords\\\": [{\\\"line\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"parcoords\\\"}], \\\"scatter\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatter\\\"}], \\\"scatter3d\\\": [{\\\"line\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatter3d\\\"}], \\\"scattercarpet\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattercarpet\\\"}], \\\"scattergeo\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattergeo\\\"}], \\\"scattergl\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattergl\\\"}], \\\"scattermapbox\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattermapbox\\\"}], \\\"scatterpolar\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatterpolar\\\"}], \\\"scatterpolargl\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatterpolargl\\\"}], \\\"scatterternary\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatterternary\\\"}], \\\"surface\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"surface\\\"}], \\\"table\\\": [{\\\"cells\\\": {\\\"fill\\\": {\\\"color\\\": \\\"#EBF0F8\\\"}, \\\"line\\\": {\\\"color\\\": \\\"white\\\"}}, \\\"header\\\": {\\\"fill\\\": {\\\"color\\\": \\\"#C8D4E3\\\"}, \\\"line\\\": {\\\"color\\\": \\\"white\\\"}}, \\\"type\\\": \\\"table\\\"}]}, \\\"layout\\\": {\\\"annotationdefaults\\\": {\\\"arrowcolor\\\": \\\"#2a3f5f\\\", \\\"arrowhead\\\": 0, \\\"arrowwidth\\\": 1}, \\\"colorscale\\\": {\\\"diverging\\\": [[0, \\\"#8e0152\\\"], [0.1, \\\"#c51b7d\\\"], [0.2, \\\"#de77ae\\\"], [0.3, \\\"#f1b6da\\\"], [0.4, \\\"#fde0ef\\\"], [0.5, \\\"#f7f7f7\\\"], [0.6, \\\"#e6f5d0\\\"], [0.7, \\\"#b8e186\\\"], [0.8, \\\"#7fbc41\\\"], [0.9, \\\"#4d9221\\\"], [1, \\\"#276419\\\"]], \\\"sequential\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"sequentialminus\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]]}, \\\"colorway\\\": [\\\"#636efa\\\", \\\"#EF553B\\\", \\\"#00cc96\\\", \\\"#ab63fa\\\", \\\"#FFA15A\\\", \\\"#19d3f3\\\", \\\"#FF6692\\\", \\\"#B6E880\\\", \\\"#FF97FF\\\", \\\"#FECB52\\\"], \\\"font\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}, \\\"geo\\\": {\\\"bgcolor\\\": \\\"white\\\", \\\"lakecolor\\\": \\\"white\\\", \\\"landcolor\\\": \\\"#E5ECF6\\\", \\\"showlakes\\\": true, \\\"showland\\\": true, \\\"subunitcolor\\\": \\\"white\\\"}, \\\"hoverlabel\\\": {\\\"align\\\": \\\"left\\\"}, \\\"hovermode\\\": \\\"closest\\\", \\\"mapbox\\\": {\\\"style\\\": \\\"light\\\"}, \\\"paper_bgcolor\\\": \\\"white\\\", \\\"plot_bgcolor\\\": \\\"#E5ECF6\\\", \\\"polar\\\": {\\\"angularaxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}, \\\"bgcolor\\\": \\\"#E5ECF6\\\", \\\"radialaxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}}, \\\"scene\\\": {\\\"xaxis\\\": {\\\"backgroundcolor\\\": \\\"#E5ECF6\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"gridwidth\\\": 2, \\\"linecolor\\\": \\\"white\\\", \\\"showbackground\\\": true, \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\"}, \\\"yaxis\\\": {\\\"backgroundcolor\\\": \\\"#E5ECF6\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"gridwidth\\\": 2, \\\"linecolor\\\": \\\"white\\\", \\\"showbackground\\\": true, \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\"}, \\\"zaxis\\\": {\\\"backgroundcolor\\\": \\\"#E5ECF6\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"gridwidth\\\": 2, \\\"linecolor\\\": \\\"white\\\", \\\"showbackground\\\": true, \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\"}}, \\\"shapedefaults\\\": {\\\"line\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}}, \\\"ternary\\\": {\\\"aaxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}, \\\"baxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}, \\\"bgcolor\\\": \\\"#E5ECF6\\\", \\\"caxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}}, \\\"title\\\": {\\\"x\\\": 0.05}, \\\"xaxis\\\": {\\\"automargin\\\": true, \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\", \\\"zerolinewidth\\\": 2}, \\\"yaxis\\\": {\\\"automargin\\\": true, \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\", \\\"zerolinewidth\\\": 2}}}, \\\"xaxis\\\": {\\\"anchor\\\": \\\"y\\\", \\\"domain\\\": [0.0, 0.98], \\\"title\\\": {\\\"text\\\": \\\"total_iters\\\"}}, \\\"yaxis\\\": {\\\"anchor\\\": \\\"x\\\", \\\"domain\\\": [0.0, 1.0], \\\"title\\\": {\\\"text\\\": \\\"train_loss\\\"}}},\\n\",\n       \"                        {\\\"responsive\\\": true}\\n\",\n       \"                    ).then(function(){\\n\",\n       \"                            \\n\",\n       \"var gd = document.getElementById('90139608-598d-42e9-9ad9-2abce461d958');\\n\",\n       \"var x = new MutationObserver(function (mutations, observer) {{\\n\",\n       \"        var display = window.getComputedStyle(gd).display;\\n\",\n       \"        if (!display || display === 'none') {{\\n\",\n       \"            console.log([gd, 'removed!']);\\n\",\n       \"            Plotly.purge(gd);\\n\",\n       \"            observer.disconnect();\\n\",\n       \"        }}\\n\",\n       \"}});\\n\",\n       \"\\n\",\n       \"// Listen for the removal of the full notebook cells\\n\",\n       \"var notebookContainer = gd.closest('#notebook-container');\\n\",\n       \"if (notebookContainer) {{\\n\",\n       \"    x.observe(notebookContainer, {childList: true});\\n\",\n       \"}}\\n\",\n       \"\\n\",\n       \"// Listen for the clearing of the current output cell\\n\",\n       \"var outputEl = gd.closest('.output');\\n\",\n       \"if (outputEl) {{\\n\",\n       \"    x.observe(outputEl, {childList: true});\\n\",\n       \"}}\\n\",\n       \"\\n\",\n       \"                        })\\n\",\n       \"                };\\n\",\n       \"                });\\n\",\n       \"            </script>\\n\",\n       \"        </div>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"fig = px.line(trainer.training_info, x='total_iters', y='train_mse_loss')\\n\",\n    \"fig.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 17,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"application/vnd.plotly.v1+json\": {\n       \"config\": {\n        \"plotlyServerURL\": \"https://plot.ly\"\n       },\n       \"data\": [\n        {\n         \"hoverlabel\": {\n          \"namelength\": 0\n         },\n         \"hovertemplate\": \"total_iters=%{x}<br>val_mse=%{y}\",\n         \"legendgroup\": \"\",\n         \"line\": {\n          \"color\": \"#636efa\",\n          \"dash\": \"solid\"\n         },\n         \"mode\": \"lines\",\n         \"name\": \"\",\n         \"showlegend\": false,\n         \"type\": \"scatter\",\n         \"x\": [\n          1,\n          2,\n          3,\n          4,\n          5,\n          6,\n          7,\n          8,\n          9,\n          10,\n          11,\n          12,\n          13,\n          14,\n          15,\n          16,\n          17,\n          18,\n          19,\n          20,\n          21,\n          22,\n          23,\n          24,\n          25,\n          26,\n          27,\n          28,\n          29,\n          30,\n          31,\n          32,\n          33,\n          34,\n          35,\n          36,\n          37,\n          38,\n          39,\n          40,\n          41,\n          42,\n          43,\n          44,\n          45,\n          46,\n          47,\n          48,\n          49,\n          50,\n          51,\n          52,\n          53,\n          54,\n          55,\n          56,\n          57,\n          58,\n          59,\n          60,\n          61,\n          62,\n          63,\n          64,\n          65,\n          66,\n          67,\n          68,\n          69,\n          70,\n          71,\n          72,\n          73,\n          74,\n          75,\n          76,\n          77,\n          78,\n          79,\n          80,\n          81,\n          82,\n          83,\n          84,\n          85,\n          86,\n          87,\n          88,\n          89,\n          90,\n          91,\n          92,\n          93,\n          94,\n          95,\n          96,\n          97,\n          98,\n          99,\n          100,\n          101,\n          102,\n          103,\n          104,\n          105,\n          106,\n          107,\n          108,\n          109,\n          110,\n          111,\n          112,\n          113,\n          114,\n          115,\n          116,\n          117,\n          118,\n          119,\n          120,\n          121,\n          122,\n          123,\n          124,\n          125,\n          126,\n          127,\n          128,\n          129,\n          130,\n          131,\n          132,\n          133,\n          134,\n          135,\n          136,\n          137,\n          138,\n          139,\n          140,\n          141,\n          142,\n          143,\n          144,\n          145,\n          146,\n          147,\n          148,\n          149,\n          150,\n          151,\n          152,\n          153,\n          154,\n          155,\n          156,\n          157,\n          158,\n          159,\n          160,\n          161,\n          162,\n          163,\n          164,\n          165,\n          166,\n          167,\n          168,\n          169,\n          170,\n          171,\n          172,\n          173,\n          174,\n          175,\n          176,\n          177,\n          178,\n          179,\n          180,\n          181,\n          182,\n          183,\n          184,\n          185,\n          186,\n          187,\n          188,\n          189,\n          190,\n          191,\n          192,\n          193,\n          194,\n          195,\n          196,\n          197,\n          198,\n          199,\n          200,\n          201,\n          202,\n          203,\n          204,\n          205,\n          206,\n          207,\n          208,\n          209,\n          210,\n          211,\n          212,\n          213,\n          214,\n          215,\n          216,\n          217,\n          218,\n          219,\n          220,\n          221,\n          222,\n          223,\n          224,\n          225,\n          226,\n          227,\n          228,\n          229,\n          230,\n          231,\n          232,\n          233,\n          234,\n          235,\n          236,\n          237,\n          238,\n          239,\n          240,\n          241,\n          242,\n          243,\n          244,\n          245,\n          246,\n          247,\n          248,\n          249,\n          250,\n          251,\n          252,\n          253,\n          254,\n          255,\n          256,\n          257,\n          258,\n          259,\n          260,\n          261,\n          262,\n          263,\n          264,\n          265,\n          266,\n          267,\n          268,\n          269,\n          270,\n          271,\n          272,\n          273,\n          274,\n          275,\n          276,\n          277,\n          278,\n          279,\n          280,\n          281,\n          282,\n          283,\n          284,\n          285,\n          286,\n          287,\n          288,\n          289,\n          290,\n          291,\n          292,\n          293,\n          294,\n          295,\n          296,\n          297,\n          298,\n          299,\n          300,\n          301,\n          302,\n          303,\n          304,\n          305,\n          306,\n          307,\n          308,\n          309,\n          310,\n          311,\n          312,\n          313,\n          314,\n          315,\n          316,\n          317,\n          318,\n          319,\n          320,\n          321,\n          322,\n          323,\n          324,\n          325,\n          326,\n          327,\n          328,\n          329,\n          330,\n          331,\n          332,\n          333,\n          334,\n          335,\n          336,\n          337,\n          338,\n          339,\n          340,\n          341,\n          342,\n          343,\n          344,\n          345,\n          346,\n          347,\n          348,\n          349,\n          350,\n          351,\n          352,\n          353,\n          354,\n          355,\n          356,\n          357,\n          358,\n          359,\n          360,\n          361,\n          362,\n          363,\n          364,\n          365,\n          366,\n          367,\n          368,\n          369,\n          370,\n          371,\n          372,\n          373,\n          374,\n          375,\n          376,\n          377,\n          378,\n          379,\n          380,\n          381,\n          382,\n          383,\n          384,\n          385,\n          386,\n          387,\n          388,\n          389,\n          390,\n          391,\n          392,\n          393,\n          394,\n          395,\n          396,\n          397,\n          398,\n          399,\n          400,\n          401,\n          402,\n          403,\n          404,\n          405,\n          406,\n          407,\n          408,\n          409,\n          410,\n          411,\n          412,\n          413\n         ],\n         \"xaxis\": \"x\",\n         \"y\": [\n          552324.375,\n          552043.5,\n          551760.0625,\n          551475.25,\n          551189.0625,\n          550901.0625,\n          550610.5625,\n          550316.75,\n          550018.9375,\n          549716.625,\n          549408.625,\n          549094.4375,\n          548773.0625,\n          548443.9375,\n          548105.9375,\n          547758.4375,\n          547400.1875,\n          547030.125,\n          546647.375,\n          546250.875,\n          545839.25,\n          545411.125,\n          544965.0625,\n          544499.375,\n          544012.6875,\n          543503.3125,\n          542968.875,\n          542407.125,\n          541815.8125,\n          541192.6875,\n          540534.5,\n          539838.375,\n          539101.0625,\n          538319.5,\n          537489.125,\n          536607.25,\n          535669.75,\n          534685.0625,\n          536554,\n          535644.25,\n          534668.375,\n          533623.5,\n          532504.25,\n          531304.9375,\n          530021.4375,\n          528651.375,\n          527187.5625,\n          525628.875,\n          523965.75,\n          522197.6875,\n          520318.09375,\n          518324.03125,\n          516208.4375,\n          513970.0625,\n          511603.53125,\n          509109.40625,\n          506483,\n          503724.21875,\n          500826.84375,\n          497790.9375,\n          494615.3125,\n          491298.5,\n          487838.375,\n          484237.125,\n          480501.0625,\n          476622.3125,\n          472603.875,\n          468445.0625,\n          464152.875,\n          459737.28125,\n          455190.375,\n          450523.1875,\n          445736.4375,\n          440843.625,\n          435848.875,\n          430782.03125,\n          448254.96875,\n          443690.84375,\n          438981.6875,\n          434143.65625,\n          429186.9375,\n          424118.96875,\n          418951.90625,\n          413699.4375,\n          408358.53125,\n          402943.0625,\n          397470.0625,\n          391965.0625,\n          386444.03125,\n          380912.71875,\n          375383.75,\n          369885.71875,\n          364436.90625,\n          359040.59375,\n          353743.75,\n          348549.96875,\n          343479.6875,\n          338573.0625,\n          333835.8125,\n          329310.09375,\n          325013.03125,\n          320978.375,\n          317247.65625,\n          313966.0625,\n          310919,\n          308172.125,\n          305762.53125,\n          303708.4375,\n          301985.40625,\n          300636.21875,\n          299654.375,\n          299108.4375,\n          298808.09375,\n          298638.9375,\n          305774.78125,\n          304917.15625,\n          303911.3125,\n          303143.96875,\n          302648.3125,\n          302002.8125,\n          301263.9375,\n          300493.4375,\n          299766.96875,\n          298952.75,\n          298135.8125,\n          297591.875,\n          297237,\n          296976.90625,\n          296651.90625,\n          296376.90625,\n          295983.25,\n          295557.75,\n          295263.78125,\n          294972.78125,\n          294788.59375,\n          294753.21875,\n          294645.625,\n          294560.71875,\n          294596,\n          294669.46875,\n          294807.65625,\n          294859.75,\n          294799.75,\n          294610.5625,\n          294589.9375,\n          294409.21875,\n          294051.96875,\n          293541.75,\n          293165.5,\n          292693.4375,\n          292110.84375,\n          291450.0625,\n          316943.9375,\n          315374.25,\n          314411.0625,\n          313162.84375,\n          311659.0625,\n          309956.0625,\n          308097.03125,\n          306124.25,\n          304079.65625,\n          301990.25,\n          300500.78125,\n          298946.03125,\n          297336.25,\n          295765.34375,\n          294674.40625,\n          293528.25,\n          292360.90625,\n          291232.8125,\n          290472.8125,\n          289652.125,\n          288825,\n          288306.875,\n          287774,\n          287402.78125,\n          287257.9375,\n          287013.34375,\n          286840.25,\n          286756.65625,\n          286833.75,\n          286845.28125,\n          286884.375,\n          286986.75,\n          287032.75,\n          287105.5625,\n          287234.15625,\n          287471,\n          287615.34375,\n          287857.5625,\n          316662.15625,\n          316853.03125,\n          316611.28125,\n          315955.34375,\n          314957,\n          313680.3125,\n          312142.96875,\n          310487.8125,\n          308677.96875,\n          306720.65625,\n          304815.21875,\n          302829.4375,\n          300815.34375,\n          298811.46875,\n          296861.71875,\n          294990.40625,\n          293692.9375,\n          292381.6875,\n          291332.3125,\n          290372.6875,\n          289416.3125,\n          288523.96875,\n          287715.1875,\n          287167.40625,\n          286701.21875,\n          286332.6875,\n          286184.875,\n          286085.28125,\n          285978.4375,\n          285975.125,\n          286006.09375,\n          286103.75,\n          286114.40625,\n          286067.625,\n          286129.46875,\n          286123.25,\n          286109.4375,\n          286025.71875,\n          315658.25,\n          315850.71875,\n          315605.5625,\n          314999.5625,\n          314055.3125,\n          312837.125,\n          311364.71875,\n          309716.0625,\n          307922.25,\n          305976.8125,\n          304133.9375,\n          302602.625,\n          301043.46875,\n          299479.96875,\n          298343.78125,\n          297585.5625,\n          296664.46875,\n          295632.375,\n          294841.46875,\n          293929.21875,\n          292965.625,\n          291933.5,\n          290912.4375,\n          290102.9375,\n          289462.78125,\n          288807.625,\n          288146.3125,\n          287490.625,\n          286864.71875,\n          286374.875,\n          286043.8125,\n          285850.09375,\n          285694.28125,\n          285601.5,\n          285549.25,\n          285477.25,\n          285362.6875,\n          285248.09375,\n          301479.6875,\n          301012.65625,\n          300453,\n          299592.96875,\n          298673.4375,\n          297578.8125,\n          296351.5625,\n          295021.09375,\n          293593.625,\n          292076.25,\n          290543.90625,\n          289318.59375,\n          288179.0625,\n          287406.09375,\n          286884.53125,\n          286564.46875,\n          286139.59375,\n          285632.03125,\n          285007.4375,\n          284259.5625,\n          283550.09375,\n          283040.34375,\n          282567.1875,\n          282109.65625,\n          281800.25,\n          281535.0625,\n          281300.25,\n          281097.6875,\n          280916.875,\n          280723.5,\n          280648,\n          280631.625,\n          280629.71875,\n          280656.75,\n          280742.875,\n          280932.84375,\n          281243.90625,\n          281710.0625,\n          307418.3125,\n          308424.9375,\n          308936.9375,\n          308971.875,\n          308611.15625,\n          307846.28125,\n          306743.40625,\n          305348.59375,\n          303709.875,\n          301924,\n          299969.9375,\n          298035.125,\n          296025.5625,\n          294013.28125,\n          292082.53125,\n          290156.6875,\n          288240.375,\n          286419.75,\n          285132.03125,\n          283898.5625,\n          282745.75,\n          281968.65625,\n          281202.375,\n          280488.53125,\n          279884.8125,\n          279521.34375,\n          279244.71875,\n          278993.15625,\n          278831.8125,\n          278620.03125,\n          278408.03125,\n          278218.375,\n          278020.15625,\n          277840.90625,\n          277660.8125,\n          277504.1875,\n          277320.875,\n          277151.625,\n          293606.625,\n          294075.40625,\n          294399.96875,\n          294553.9375,\n          294324.875,\n          293761.75,\n          292933.96875,\n          291910.09375,\n          290692.09375,\n          289343.375,\n          287891.625,\n          286917.46875,\n          285785,\n          284547.125,\n          283434.1875,\n          282724.09375,\n          281904.3125,\n          281004.03125,\n          280021.28125,\n          279027.96875,\n          278019.0625,\n          277063.46875,\n          276167.625,\n          275419.15625,\n          274843.75,\n          274434.4375,\n          274107.90625,\n          273946.59375,\n          273879.625,\n          273802.6875,\n          273757.6875,\n          273824.53125,\n          273884.875,\n          274005.71875,\n          274191.875,\n          274294.96875,\n          274481.28125,\n          274786.09375,\n          285838.875,\n          284552.3125,\n          283209.8125,\n          282158.15625,\n          281038.46875,\n          279877.96875,\n          279090.03125,\n          278531.625,\n          278200.03125,\n          277744.9375,\n          277533.0625,\n          277515.34375,\n          277536.53125,\n          277398.8125,\n          277165.3125,\n          276900.3125,\n          276867.125,\n          276674.03125,\n          276434.59375,\n          276338.25,\n          276123.75,\n          276036.03125,\n          276092.34375,\n          275995.8125,\n          276006.5,\n          276129.3125,\n          276156.21875,\n          276121.9375,\n          276203.3125,\n          276181.96875,\n          276031.3125,\n          275812.6875,\n          275525.75\n         ],\n         \"yaxis\": \"y\"\n        }\n       ],\n       \"layout\": {\n        \"autosize\": true,\n        \"legend\": {\n         \"tracegroupgap\": 0\n        },\n        \"margin\": {\n         \"t\": 60\n        },\n        \"template\": {\n         \"data\": {\n          \"bar\": [\n           {\n            \"error_x\": {\n             \"color\": \"#2a3f5f\"\n            },\n            \"error_y\": {\n             \"color\": \"#2a3f5f\"\n            },\n            \"marker\": {\n             \"line\": {\n              \"color\": \"#E5ECF6\",\n              \"width\": 0.5\n             }\n            },\n            \"type\": \"bar\"\n           }\n          ],\n          \"barpolar\": [\n           {\n            \"marker\": {\n             \"line\": {\n              \"color\": \"#E5ECF6\",\n              \"width\": 0.5\n             }\n            },\n            \"type\": \"barpolar\"\n           }\n          ],\n          \"carpet\": [\n           {\n            \"aaxis\": {\n             \"endlinecolor\": \"#2a3f5f\",\n             \"gridcolor\": \"white\",\n             \"linecolor\": \"white\",\n             \"minorgridcolor\": \"white\",\n             \"startlinecolor\": \"#2a3f5f\"\n            },\n            \"baxis\": {\n             \"endlinecolor\": \"#2a3f5f\",\n             \"gridcolor\": \"white\",\n             \"linecolor\": \"white\",\n             \"minorgridcolor\": \"white\",\n             \"startlinecolor\": \"#2a3f5f\"\n            },\n            \"type\": \"carpet\"\n           }\n          ],\n          \"choropleth\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"type\": \"choropleth\"\n           }\n          ],\n          \"contour\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"contour\"\n           }\n          ],\n          \"contourcarpet\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"type\": \"contourcarpet\"\n           }\n          ],\n          \"heatmap\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"heatmap\"\n           }\n          ],\n          \"heatmapgl\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"heatmapgl\"\n           }\n          ],\n          \"histogram\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"histogram\"\n           }\n          ],\n          \"histogram2d\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"histogram2d\"\n           }\n          ],\n          \"histogram2dcontour\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"histogram2dcontour\"\n           }\n          ],\n          \"mesh3d\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"type\": \"mesh3d\"\n           }\n          ],\n          \"parcoords\": [\n           {\n            \"line\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"parcoords\"\n           }\n          ],\n          \"scatter\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatter\"\n           }\n          ],\n          \"scatter3d\": [\n           {\n            \"line\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatter3d\"\n           }\n          ],\n          \"scattercarpet\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattercarpet\"\n           }\n          ],\n          \"scattergeo\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattergeo\"\n           }\n          ],\n          \"scattergl\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattergl\"\n           }\n          ],\n          \"scattermapbox\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scattermapbox\"\n           }\n          ],\n          \"scatterpolar\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatterpolar\"\n           }\n          ],\n          \"scatterpolargl\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatterpolargl\"\n           }\n          ],\n          \"scatterternary\": [\n           {\n            \"marker\": {\n             \"colorbar\": {\n              \"outlinewidth\": 0,\n              \"ticks\": \"\"\n             }\n            },\n            \"type\": \"scatterternary\"\n           }\n          ],\n          \"surface\": [\n           {\n            \"colorbar\": {\n             \"outlinewidth\": 0,\n             \"ticks\": \"\"\n            },\n            \"colorscale\": [\n             [\n              0,\n              \"#0d0887\"\n             ],\n             [\n              0.1111111111111111,\n              \"#46039f\"\n             ],\n             [\n              0.2222222222222222,\n              \"#7201a8\"\n             ],\n             [\n              0.3333333333333333,\n              \"#9c179e\"\n             ],\n             [\n              0.4444444444444444,\n              \"#bd3786\"\n             ],\n             [\n              0.5555555555555556,\n              \"#d8576b\"\n             ],\n             [\n              0.6666666666666666,\n              \"#ed7953\"\n             ],\n             [\n              0.7777777777777778,\n              \"#fb9f3a\"\n             ],\n             [\n              0.8888888888888888,\n              \"#fdca26\"\n             ],\n             [\n              1,\n              \"#f0f921\"\n             ]\n            ],\n            \"type\": \"surface\"\n           }\n          ],\n          \"table\": [\n           {\n            \"cells\": {\n             \"fill\": {\n              \"color\": \"#EBF0F8\"\n             },\n             \"line\": {\n              \"color\": \"white\"\n             }\n            },\n            \"header\": {\n             \"fill\": {\n              \"color\": \"#C8D4E3\"\n             },\n             \"line\": {\n              \"color\": \"white\"\n             }\n            },\n            \"type\": \"table\"\n           }\n          ]\n         },\n         \"layout\": {\n          \"annotationdefaults\": {\n           \"arrowcolor\": \"#2a3f5f\",\n           \"arrowhead\": 0,\n           \"arrowwidth\": 1\n          },\n          \"colorscale\": {\n           \"diverging\": [\n            [\n             0,\n             \"#8e0152\"\n            ],\n            [\n             0.1,\n             \"#c51b7d\"\n            ],\n            [\n             0.2,\n             \"#de77ae\"\n            ],\n            [\n             0.3,\n             \"#f1b6da\"\n            ],\n            [\n             0.4,\n             \"#fde0ef\"\n            ],\n            [\n             0.5,\n             \"#f7f7f7\"\n            ],\n            [\n             0.6,\n             \"#e6f5d0\"\n            ],\n            [\n             0.7,\n             \"#b8e186\"\n            ],\n            [\n             0.8,\n             \"#7fbc41\"\n            ],\n            [\n             0.9,\n             \"#4d9221\"\n            ],\n            [\n             1,\n             \"#276419\"\n            ]\n           ],\n           \"sequential\": [\n            [\n             0,\n             \"#0d0887\"\n            ],\n            [\n             0.1111111111111111,\n             \"#46039f\"\n            ],\n            [\n             0.2222222222222222,\n             \"#7201a8\"\n            ],\n            [\n             0.3333333333333333,\n             \"#9c179e\"\n            ],\n            [\n             0.4444444444444444,\n             \"#bd3786\"\n            ],\n            [\n             0.5555555555555556,\n             \"#d8576b\"\n            ],\n            [\n             0.6666666666666666,\n             \"#ed7953\"\n            ],\n            [\n             0.7777777777777778,\n             \"#fb9f3a\"\n            ],\n            [\n             0.8888888888888888,\n             \"#fdca26\"\n            ],\n            [\n             1,\n             \"#f0f921\"\n            ]\n           ],\n           \"sequentialminus\": [\n            [\n             0,\n             \"#0d0887\"\n            ],\n            [\n             0.1111111111111111,\n             \"#46039f\"\n            ],\n            [\n             0.2222222222222222,\n             \"#7201a8\"\n            ],\n            [\n             0.3333333333333333,\n             \"#9c179e\"\n            ],\n            [\n             0.4444444444444444,\n             \"#bd3786\"\n            ],\n            [\n             0.5555555555555556,\n             \"#d8576b\"\n            ],\n            [\n             0.6666666666666666,\n             \"#ed7953\"\n            ],\n            [\n             0.7777777777777778,\n             \"#fb9f3a\"\n            ],\n            [\n             0.8888888888888888,\n             \"#fdca26\"\n            ],\n            [\n             1,\n             \"#f0f921\"\n            ]\n           ]\n          },\n          \"colorway\": [\n           \"#636efa\",\n           \"#EF553B\",\n           \"#00cc96\",\n           \"#ab63fa\",\n           \"#FFA15A\",\n           \"#19d3f3\",\n           \"#FF6692\",\n           \"#B6E880\",\n           \"#FF97FF\",\n           \"#FECB52\"\n          ],\n          \"font\": {\n           \"color\": \"#2a3f5f\"\n          },\n          \"geo\": {\n           \"bgcolor\": \"white\",\n           \"lakecolor\": \"white\",\n           \"landcolor\": \"#E5ECF6\",\n           \"showlakes\": true,\n           \"showland\": true,\n           \"subunitcolor\": \"white\"\n          },\n          \"hoverlabel\": {\n           \"align\": \"left\"\n          },\n          \"hovermode\": \"closest\",\n          \"mapbox\": {\n           \"style\": \"light\"\n          },\n          \"paper_bgcolor\": \"white\",\n          \"plot_bgcolor\": \"#E5ECF6\",\n          \"polar\": {\n           \"angularaxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           },\n           \"bgcolor\": \"#E5ECF6\",\n           \"radialaxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           }\n          },\n          \"scene\": {\n           \"xaxis\": {\n            \"backgroundcolor\": \"#E5ECF6\",\n            \"gridcolor\": \"white\",\n            \"gridwidth\": 2,\n            \"linecolor\": \"white\",\n            \"showbackground\": true,\n            \"ticks\": \"\",\n            \"zerolinecolor\": \"white\"\n           },\n           \"yaxis\": {\n            \"backgroundcolor\": \"#E5ECF6\",\n            \"gridcolor\": \"white\",\n            \"gridwidth\": 2,\n            \"linecolor\": \"white\",\n            \"showbackground\": true,\n            \"ticks\": \"\",\n            \"zerolinecolor\": \"white\"\n           },\n           \"zaxis\": {\n            \"backgroundcolor\": \"#E5ECF6\",\n            \"gridcolor\": \"white\",\n            \"gridwidth\": 2,\n            \"linecolor\": \"white\",\n            \"showbackground\": true,\n            \"ticks\": \"\",\n            \"zerolinecolor\": \"white\"\n           }\n          },\n          \"shapedefaults\": {\n           \"line\": {\n            \"color\": \"#2a3f5f\"\n           }\n          },\n          \"ternary\": {\n           \"aaxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           },\n           \"baxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           },\n           \"bgcolor\": \"#E5ECF6\",\n           \"caxis\": {\n            \"gridcolor\": \"white\",\n            \"linecolor\": \"white\",\n            \"ticks\": \"\"\n           }\n          },\n          \"title\": {\n           \"x\": 0.05\n          },\n          \"xaxis\": {\n           \"automargin\": true,\n           \"gridcolor\": \"white\",\n           \"linecolor\": \"white\",\n           \"ticks\": \"\",\n           \"zerolinecolor\": \"white\",\n           \"zerolinewidth\": 2\n          },\n          \"yaxis\": {\n           \"automargin\": true,\n           \"gridcolor\": \"white\",\n           \"linecolor\": \"white\",\n           \"ticks\": \"\",\n           \"zerolinecolor\": \"white\",\n           \"zerolinewidth\": 2\n          }\n         }\n        },\n        \"xaxis\": {\n         \"anchor\": \"y\",\n         \"autorange\": true,\n         \"domain\": [\n          0,\n          0.98\n         ],\n         \"range\": [\n          1,\n          413\n         ],\n         \"title\": {\n          \"text\": \"total_iters\"\n         },\n         \"type\": \"linear\"\n        },\n        \"yaxis\": {\n         \"anchor\": \"x\",\n         \"autorange\": true,\n         \"domain\": [\n          0,\n          1\n         ],\n         \"range\": [\n          258281.76041666666,\n          567800.3020833334\n         ],\n         \"title\": {\n          \"text\": \"val_mse\"\n         },\n         \"type\": \"linear\"\n        }\n       }\n      },\n      \"image/png\": \"iVBORw0KGgoAAAANSUhEUgAABIcAAAHCCAYAAAB13KnjAAAAAXNSR0IArs4c6QAAQABJREFUeAHs3QecVNX9///3vbOdBXYpuzSpFhREBKQKKmAFY8Ekf3sSY6LG2JJfTNWYmJhqilG/+ZrElh5L1Pi1oLEgSEc6ghSVXpe+LMzc/zl3mGV32ZVdtt1753V9jDtz7517z3memWHuZ875HMczi1gQQAABBBBAAAEEEEAAAQQQQAABBNJSwE3LWlNpBBBAAAEEEEAAAQQQQAABBBBAAAFfgOAQLwQEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAgOAQrwEEEEAAAQQQQAABBBBAAAEEEEAgjQUIDqVx41N1BBBAAAEEEEAAAQQQQAABBBBAIAOC+gms3bK3fgfg2YERcB1HRYXZWr+1NDBloiANI5Cd6So/N1NbduxrmANylMAItMjJUEbM0fbd+wNTJgrSMAIF+Vkq2x/Xnn3xhjkgRwmMQPvW2Sox79n9BxKBKRMFaRiBTm1zxXfjhrEM0lEyY64KWmZqUwnfo4LULg1RlrzsmLIyYyrZVdYQh6vzMexnBktwBOg5FJy2oCQIIIAAAggggAACCCCAAAIIIIBAkwsQHGpyck6IAAIIIIAAAggggAACCCCAAAIIBEeA4FBw2oKSIIAAAggggAACCCCAAAIIIIAAAk0uQHCoyck5IQIIIIAAAggggAACCCCAAAIIIBAcAYJDwWkLSoIAAggggAACCCCAAAIIIIAAAgg0uQDBoSYn54QIIIAAAggggAACCCCAAAIIIIBAcAQIDgWnLSgJAggggAACCCCAAAIIIIAAAggg0OQCBIeanJwTIoAAAggggAACCCCAAAIIIIAAAsERIDgUnLagJAgggAACCCCAAAIIIIAAAggggECTCxAcanJyTogAAggggAACCCCAAAIIIIAAAggER4DgUHDagpIggAACCCCAAAIIIIAAAggggAACTS5AcKjJyTkhAggggAACCCCAAAIIIIAAAgggEBwBgkMV2mLD5m3as7e0whpp89btemHilErreIAAAggggAACCCCAAAIIIIAAAghERSAjKhW55/7H9c/n36hUnZNP7Km/P3yXps5epOvu+FmlbfbBxH/8Up2K22rFh2v1lW//RqvXbfT3uWDMUN37jeuUmZmhpStW666f/UkXnj38sOfbFbPmuGqR56mwUCos8JSVVe1urEQAAQQQQAABBBBAAAEEEEAAAQQCKRCZ4JDneRo+qI++efOV5dA5OclIjd1ml+ce+5Ec819qKW5X4N/9wf1PqGe3jnr6D/dozfrNuuaW+/Tcq5N12bgzUrvW+PeFF10lEsnN9sgtWpggUWEyWNTm4F8bNLLrWrWUnEOnr/GYbEAAAQQQQAABBBBAAAEEEEAAAQSaSiAywSELlt8iT726d6rRrle3TiY4Uzk6s237Ts2c977+dP83lJebo+N6dNHYkQM08a2Z1QaH3pg8Rw8+9m997/ZrdMpJvXTawIS2lTjauk0qMX937Za5Ofp4tS1G5XNlxKQCP1AkVQwctbG9jkzwiF5HNTYdGxBAAAEEEEAAAQQQQAABBBBAoJEEIhUcmrtoub52z0MqaJWvMSMH+j2JKrp9/QcPKzMjww/qXHLBSOVkZ2nj5hLZnkXduhSX79qtSwfNX7yy/HHqzpSZC/3jf+fWq/1j2PVXfeYQoe2gtH2HtGWryVW0xTv41+YtMve3SDt32fWOudlnVg4c2TUt86W2baV2bZyDf81jc7+dWVfQml5H1qgxF9siNnhY2JKxgY3p3BzHjpl2zYjRts1h39jnzHBNf1D/fXv4Z2pjn5vjN65AVoarTPO+zc4yv6ywREogZtq1VV6mEgd7dkeqclSG71ERfA245t/ZmPn3lu/I0Wtc+z3KpW2j17BHWaNDkY2jPEBQnta3dw/l5+UqOztTi5au0vVf/7l+/K3rddG5I0ywpbUuv3iMyQnU0gSDtulXj/xLk6bP10P33aYdO01XH7Nkm0BRasnOytTO3XtSD/2/cxYs063fe8AMW7tCE8aNKt9Wui9eft/eycmROpvOS/ZWdSkrk9/DaIvpZbTVBJC2bE32OLK9juzNBo/sbdWHyWFwyecn75uYlim/7XFkA0bJnkf+X3O/rVmXnV31bDyuq4C9wMzOdFW1Tet6HPYPnkBGhgkguBm0bfCapt4lsoGDmOvRtvWWDN4B7MXIgXhCZfsPjt0OXhEp0VEKZMVc7dsfVzxe8fvOUR6MpwVKINd8JvM9KlBN0iCFsYGhjBjfoxoEM2AHyTLXPhnmM7m53rf2M4MlOAKRCQ5VzQ90x/cf1L9ffscPDtmhYt+97epy9eGD+spuL9mxy+QBMkmCzLKvbH/5dnu/VX5e+eOy/Qd0w533q2vnIk0Yf0b5entnb1nl4FCljdU8aG0COfbWs2fljfbr0a6dNkjkmGFq0jbz179vgkb2/i4TNNq0OXlLPrPyr+RmRF3lXEcmkJTMfWRyHbWSzGc6yxEE7IVIqxYZdW7TIxyWzQEQyPZcZWV4tG0A2qKhi2B/7fJML4S6fhY3dDk4XsML2MDf/gMJ2rbhaZv9iPm5GSY4lPDbt9kLQwEaVMB8xeU926CiwThYpgke5ObwPSoYrdGwpTCXP34P7Ob6HmU/M1iCIxCZ4FBV0uJ2hVq3wXTPqWax2+xSWlqmIpOU2vYY+Wj1BqXWr/p4vVl/6KVqt99y3QQ9ZHIN3fPLx/SD//eFao5av1U2dtPSJKxu2dIMcetqj1X517T9JnZlcxtt83sZOSa/0cFAkg0emfW2o9PuPY5Wr7HPrRwJitlcR609tWsntW/nqbjIUyfTs6ldW8/U3e7PggACCCCAAAIIIIAAAggggAAC6SoQmeDQj3/7Z1183kg/IfWCJSv92cYuv2iM365/ffY1dSxqq0GnnKA9pfv0u0efVY9jOqhDkRmTZZaB/Y7Xo/94WScd311r1m3Sa5Nm6es3ftbfZv+XaTJJX3npWNmha1+446dqU9BKt11/Wfn2priTmSkVtffMzZ6tcuDI73VkehbZHkap4JF//2AAyfZIskPYbC6k95ceigbZoWidOnpmCJy5dU7+tbmNWBBAAAEEEEAAAQQQQAABBBBAIH0EIhMcmj1/mf7yzGt+y9mePuefNVjXXznef1yyfZd++uDfdOBAcghYTzNr2S/uvqm8le+6/Vrd9K1faej4G01yaun80UN00Tkjyre7ruvft7OT3W+e99XvPuD3Mrr8kmTwqXzHZrrj9zoyyaxb5nvqeowtROXgkRkVpxITOEoOS3O0br2jNWsdbd8urVzl+LdU0VuYUXZ+sMgGjA7e7DoWBBBAAAEEEEAAAQQQQAABBBCIpoBjZuqqHEkIcT1tcukt23aouH2hPy19xarYPEIbNm0142Wz1b6tSchTzbJ2wxYTYMlTyxa51WytftXaLXur3xCCtbtMLu61JkhkA0X+bU1yeFrVotveRKmeRTZgZHsbRTEBts05VFSYrfVbS6sS8DjkAjbReH5uprbs2BfymlD8qgItcjL8mei27z6UN67qPjwOp0BBfpZJRh3XnioTP4SzNpS6okD71tkqMe9Zm1OKJVoCndrmKszfjaPVGg1XG5tzqKBlpjaV8D2q4VSDcaS87JiyMmMq2WVmTmqGxX5msARHIDI9hyypTS6dSjBdldjOQNa186Hp6qtut487FZs549NoyTc9go4/zvNvqWqXmPxFa9aqPGBkg0clpodRyXZHCxclh6TZPEU2X5E/K9vB4Wgdij3ZGdVYEEAAAQQQQAABBBBAAAEEEEAgXAJczoervRq9tAUFngpMx6o+JyU7lNl+ZZs3Vw4YrTfD0jaZdXaY2nvzkgEjm/S6iwkU9erp6bhjbcJrk+y60UvLCRBAAAEEEEAAAQQQQAABBBBAoL4CBIfqKxjx59teQu1NIuz2JhF2/1OSAaO4Sd20foMNGCWDRrZ30aZNjj78KHn775tS61bSSScmdGJvkwepqycz2zQLAggggAACCCCAAAIIIIAAAggEUIDgUAAbJehFsr2EUsmqU2U1k8BplUluvXyFoyXvu9q+Q3p3mmtukh2+1vuEhAkWeerRw5MZtsyCAAIIIIAAAggggAACCCCAAAIBESA4FJCGCHsxTJ5vEwDy/NsF5ye0xiS3XrzE0aLFjrZsdTRztmtuMgnBTZ6j4z2d1DuhY83ws0xegWFvesqPAAIIIIAAAggggAACCCAQcgEuzUPegEEsvh1BZvMP2dvZY6QNG5NBokUmWLTBDEeba/IUzZ1nMuNnyc9PZIefHW8CRVGcAS2I7UOZEEAAAQQQQAABBBBAAAEEEKgoQHCoogb3G0WguMiTvZ11hvxeRLY3ke1VZHsX2RnQFi6Kmamo5fckGtDfBIrMDGpuhaFn8xY4mr/A1dDBCfU0Ca9JX9QozcRBEUAAAQQQQAABBBBAAAEE0lSA4FCaNnxzVbttG08jR9ib/LxEi5e4/tCzj0wy6yXv21tMLVtKA09NaEB/z+QscvzcRba87y+NqcgEmYYP9dSvb0IZvHqbqxk5LwIIIIAAAggggAACCCCAQIQEHM8sEapPk1dl7Za9TX7OKJ5w925p7nxXs2abmc82V+4bZBNgH9PF01aTu2jHzmTtW5gk14MHJfybvd8Qi2umZisqzNb6raUNcTiOESCB7ExX+bmZ2rLDZE5niZRAi5wM0/PQ0fbd+yNVLyojFeRnqWx/XHv2mSkyWSIl0L51tkrMe3b/gUSk6kVlpE5tc8V34+i9EjLNbDIFLTO1qYTvUVFr3bxsk+ojM6aSXWXNUjX7mcESHAH6XgSnLdK6JDbAM3xowtzMrGcfOpo+09ViM/zMrv/sp+N+cChuvkMuXOhoylRXa9c5euMtV5Mmu34vItubyPYqYkEAAQQQQAABBBBAAAEEEEAAgboJEByqmxd7N4FA926euneLa+cuyXTmUf7BnkHmRwv1O9kMKTs57geQ3p3m+kPRZr/nas578vMR2QCTnQWtct+jJig0p0AAAQQQQAABBBBAAAEEEEAgpAIEh0LacOlQ7Jb5NdcyFUDaus3RVJOXyAaIlq9wzC2m9u2TeYn6n5KQDSixIIAAAggggAACCCCAAAIIIIBAzQIEh2q2YUsIBNoUerrgPE+jz0xo5mxX02a42rTJ0XMvOHpniqOxoxM66UR6EoWgKSkiAggggAACCCCAAAIIIIBAMwkQHGomeE7bsAI5OdLpw23OooQWmlxFNh/RZpPY+h//iqlnD0+fGpdQGzNTGgsCCCCAAAIIIIAAAggggAACCFQWYNBNZQ8ehVzANa/ok/t4uvmGuC40ASGb0HrFSkcP/k/MT15tk1qzIIAAAggggAACCCCAAAIIIIDAIQGCQ4csuBchARskOm1gQrfcdECnnuLpwAFp4uuufv9ITGvWkq46Qk1NVRBAAAEEEEAAAQQQQAABBOopQHConoA8PdgCubnSJRfFde3Vcdn8ROs3OHrkjzG9/Kqrsv3BLjulQwABBBBAAAEEEEAAAQQQQKApBAgONYUy52h2AZt36CtmqJnNS2TnuZ8y1dXvHs7QB8vpRdTsjUMBEEAAAQQQQAABBBBAAAEEmlWA4FCz8nPyphTIzJTOGZvQl78YV6eOnkpKpCf+EtPTz8a0e09TloRzIYAAAggggAACCCCAAAIIIBAcAYJDwWkLStJEAh07ePrSdXGde3ZCNmA0d77j9yJa9gG9iJqoCTgNAggggAACCCCAAAIIIIBAgAQIDgWoMShK0wnYhNUjhiX8Wc169fS0e7fpRfRXV8/8J6EEM5o1XUNwJgQQQAABBBBAAAEEEEAAgWYXIDjU7E1AAZpToNAkqb7myrjOHpOQYzoOvfxaQn/5e0z7ypqzVJwbAQQQQAABBBBAAAEEEEAAgaYTIDjUdNacKaACNig0ckRC112bUKuWkh1e9sdHY9qxI6AFplgIIIAAAggggAACCCCAAAIINKAAwaEGxORQ4Rbo1tXTN2+LqV275JT3//unDK3fQB6icLcqpUcAAQQQQAABBBBAAAEEEDiSAMGhIwmxPa0E2rV1dP0X4urezfN7DtkeREx3n1YvASqLAAIIIIAAAggggAACCKSdAMGhtGtyKnwkgdwc6Zqr4up3sufnHvrz32KaNZu3ypHc2I4AAggggAACCCCAAAIIIBBOAa54w9lulLqRBTJi0oRL4jpjZHL2suf+42ri6668Rj4vh0cAAQQQQAABBBBAAAEEEECgqQUIDjW1OOcLjYDNNjTmrIQu/lRCMfNOmTTZ1VNPx3TgQGiqQEERQAABBBBAAAEEEEAAAQQQOKIAwaEjErFDugsM6J/QVVfElZMtzV/o6PE/x7Rnb7qrUH8EEEAAAQQQQAABBBBAAIGoCBAcikpLUo9GFejV09N1n4+rdWvpw48c/cEkqt65q1FPycERQAABBBBAAAEEEEAAAQQQaBIBgkNNwsxJoiBQXOTpS184oA4dPG3e7OjRx02AaGcUakYdEEAAAQQQQAABBBBAAAEE0lmA4FA6tz51r7NAy5bS56+Oq6MNEG0xAaInYtpFD6I6O/IEBBBAAAEEEEAAAQQQQACB4AgQHApOW1CSkAjk5kqfswGijskAkZ3qvqwsJIWnmAgggAACCCCAAAIIIIAAAghUESA4VAWEhwjURsAGiK69Mq62bTytXefon2YWs0SiNs9kHwQQQAABBBBAAAEEEEAAAQSCJUBwKFjtQWlCJJCXJ119RUItzN+lyxy98H+8nULUfBQVAQQQQAABBBBAAAEEEEDgoABXs7wUEKiHQBvTc+jKy+PKzJRmzXb11iTeUvXg5KkIIIAAAggggAACCCCAAALNIMCVbDOgc8poCXTp7OnTl8blOtJ/33A1d565w4IAAggggAACCCCAAAIIIIBASAQIDoWkoShmsAV6n+Dp/PMS8kwx//1CTCtWEiAKdotROgQQQAABBBBAAAEEEEAAgZQAwaGUBH8RqKfAkNMSOn14QvG49Pd/xrRhAwGiepLydAQQQAABBBBAAAEEEEAAgSYQSKvg0K7de7Vxc0mNrBs2b9OevaWVtm/eul0vTJxSaR0PEKhJ4OyxCZ3cx1PpPulJM8X9jh017cl6BBBAAAEEEEAAAQQQQAABBIIhkBGMYtS/FPfc/7j++fwblQ508ok99feH79K+sv369n2P6JU3Z8gxnTm6dS7Wg/fdrm5div39V3y4Vl/59m+0et1G//EFY4bq3m9cZ5IMZ2jpitW662d/0oVnD690bB4gUJ2A7St0ycVx7dwV06oPHT3515iu+3xcOdnV7c06BBBAAAEEEEAAAQQQQAABBJpfIDI9hzzP0/BBffT8Yz8uv/3y7pt84WdefFvTZi/WC4//WFP/87A6dWive3/zZLn+D+5/Qj27ddS0Fx/WM3/8od6eOk/PvTq5fDt3EKiLQEZMuvyzcbVv72nDRscfYmaHmrEggAACCCCAAAIIIIAAAgggEESByASHLG5+izz16t6p/Na5Qzvf/NW3Z+rcM09Tj64d1SIvR9d+5hxNnbVQO80ws23bd2rmvPd17afPVV5ujo7r0UVjRw7QxLdmVtteb0yeo8uuv1tzFy2vdjsrEbAC5qWkq6+Iq2W+/OTUz//HRIxYEEAAAQQQQAABBBBAAAEEEAigQGSGlVlbG7D52j0PqaBVvsaMHOj3JLLrN2zaqjOHnWLv+ktXM6wskfC0eUuJyvYfkO11lBpiZnfo1qWD5i9emdy5wv+nzFzoH/87t16tU07q5W9p3SKzwh7cDbOAY8Yc2ltDtWnrFtIN10m/fdjTnLmOevXI1MhhYRYKb9ljrqOMWMO1bXglolfyzJgrx/zM0VDv2+gJhbdGWRmu7Hs30/xliZaAbdf83Az/u1i0akZtrACfx9F7Hbjm+7F939K20WvbDPM9iraNXrsebY0iExzq27uH8vNylZ2dqUVLV+n6r/9cP/7W9bro3BEm/8se5VRI+pKdleV77TDry0w+IrtkZyfX+fezMk2voj3++tT/5ixYplu/94C+efMVmjBuVGq1DsTt5OUsURBw7ET0WW6DtmkHk9bqMxNscmrp2Rc8dewgde8aBa3w1SHDNC/v1/C125FK7LqeYgmHtj0SVAi3Z5o3bSKRoG1D2HZHKrL95hQ335/i5oc6lugJ8G9t9NrUxA/Mj+l8j4pey0qukzA/jjfs9U8UndKlTpEJDl027oxKbXbH9x/Uv19+xw8OtWrZwk9KndphX1mZf7dVfp7fc8g+sEmrU4u9b7elFtu76IY771fXzkWaML7yeXaXHkjtxt+QC9hfRfLzMtTQbXrccdLwoa6mTHX1+F+kG798wAxvDDlWyIqfnemankNug7dtyBgiWtwMv1dYQ79vI4oVqmrZHkNl+xPas4+kbaFquFoUNi87pr1lce0/kKjF3uwSJgHbs4TP4zC1WO3KanvpZpsfUGnb2nmFaS/PfB5nyWm2tqU3WrBeLZHtq13crlClpckgUJG5/9HqDeXyqz5eL9d0jWzftkBF7Qr8oURVt9vnpBY71OiW6yZo/catuueXj6VW8xeBWgucY6a4797N046dEvmHas3GjggggAACCCCAAAIIIIAAAk0gEJng0I9/+2cznOxDvwfQrHlL/dnG7Oxldjln1CC99N9pslPW795Tqif+9YqGDuxjEljnqrB1Sw3sd7we/cfL/ralyz/Wa5Nm6ewzBpXzZ5rpp668dKwe+sntevH1qfr1I0+Vb+MOArURcM07bYKZ4j7HJKpevMTR7DmReevVpvrsgwACCCCAAAIIIIAAAgggEGCByAwrmz1/mf7yzGs+te3pc/5Zg3X9leP9x5eaHEHT5izWpz73HdNLSDqmU5EevO/28ma56/ZrddO3fqWh42/0x9OeP3qILjpnRPl2117Zm8Umob7/7pv01e8+INsz6fJLxpTvwx0EjiTQurU0/oK4nnomppdecdW9u6c2heRbOJIb2xFAAAEEEEAAAQQQQAABBBpXwDEzdUXm6nTHzt3asm2HitsX+tPSV6Wzial3menrOxa3rbrJf7x2wxYz9XieWpoeRbVd1m7ZW9td2S/gAjbnUFFhttZvLW3Ukv7r6ZjmL3TU9RhPX/hc3CSCa9TTcXAjYHMO5edmasuOfXhETKBFTjLn0Pbdh/LGRayKaVudgvwsk3MoTs6hCL4C2rfOVol5z5JzKHqN26ltrvhuHL12tTmHClpmalMJ36Oi1ro2B1xWZkwlu5LpWJq6fvYzgyU4ApEa22ITT/fo2rHawJAlt4GfmgJDdnsnEzSqS2DIPocFgboKjB8XV+tW0kcfO5r0TqTegnWlYH8EEEAAAQQQQAABBBBAAIEACHBlGoBGoAjpJZBr8g5dclHcH+L45luu1qyl61B6vQKoLQIIIIAAAggggAACCCAQLAGCQ8FqD0qTJgI9e3gaNiShuJnF9+lnXe1nREyatDzVRAABBBBAAAEEEEAAAQSCJ0BwKHhtQonSRGDs6ISKizxt3uLolYm8FdOk2akmAggggAACCCCAAAIIIBA4Aa5IA9ckFChdBDLMXIGXXZJQRkyaMdPV0mUML0uXtqeeCCCAAAIIIIAAAggggECQBAgOBak1KEvaCRQXexpjehDZKQP//UJMu/ekHQEVRgABBBBAAAEEEEAAAQQQaGYBgkPN3ACcHoHhQxPq0d3Trl3S8/8x3YhYEEAAAQQQQAABBBBAAAEEEGhCAYJDTYjNqRCoTsAxo8kuNbOX5ZhZzBYvcTR7Dm/L6pxYhwACCCCAAAIIIIAAAggg0DgCXIU2jitHRaBOAq1bS+MviPvPeekVV1u3kX+oToDsjAACCCCAAAIIIIAAAgggcNQCBIeOmo4nItCwAv36ejq5j6d9ZSb/0POun4eoYc/A0RBAAAEEEEAAAQQQQAABBBA4XIDg0OEmrEGg2QTGj4srP19a9aEZXjabt2ezNQQnRgABBBBAAAEEEEAAAQTSSICrzzRqbKoafIFck3do3HnJ4WWvvOZqp0lSzYIAAggggAACCCCAAAIIIIBAYwoQHGpMXY6NwFEI9DnJ0wnHeyotlf7vZWYvOwpCnoIAAggggAACCCCAAAIIIFAHAYJDdcBiVwSaSmD8+XFlZ0kLFzlavoLk1E3lznkQQAABBBBAAAEEEEAAgXQUIDiUjq1OnQMvYGcvGzUy4Zfz5VddJbzAF5kCIoAAAggggAACCCCAAAIIhFSA4FBIG45iR19g2NCECgs9bdjoaBbJqaPf4NQQAQQQQAABBBBAAAEEEGgmAYJDzQTPaRE4kkCGSTd07thk76H/vuH6OYiO9By2I4AAAggggAACCCCAAAIIIFBXAYJDdRVjfwSaUOCkEz316O5p9x7pzbd5uzYhPadCAAEEEEAAAQQQQAABBNJGgKvNtGlqKhpWgfPPScg1OamnzXC1ZSvJqcPajpQbAQQQQAABBBBAAAEEEAiqAMGhoLYM5ULgoECHDp5O7Z9QPC69MpG3LC8MBBBAAAEEEEAAAQQQQACBhhXgSrNhPTkaAo0iMGZ0QtnZ0pL3mdq+UYA5KAIIIIAAAggggAACCCCQxgIEh9K48al6eATyW5ip7U9navvwtBglRQABBBBAAAEEEEAAAQTCI0BwKDxtRUnTXICp7dP8BUD1EUAAAQQQQAABBBBAAIFGEiA41EiwHBaBhhZgavuGFuV4CCCAAAIIIIAAAggggAACVoDgEK8DBEIkwNT2IWosiooAAggggAACCCCAAAIIhESA4FBIGopiIpASYGr7lAR/EUAAAQQQQAABBBBAAAEEGkKA4FBDKHIMBJpQgKntmxCbUyGAAAIIIIAAAggggAACaSBAcCgNGpkqRk+Aqe2j16bUCAEEEEAAAQQQQAABBBBoLgGCQ80lz3kRqIcAU9vXA4+nIoAAAggggAACCCCAAAIIVBIgOFSJgwcIhEeAqe3D01aUFAEEEEAAAQQQQAABBBAIsgDBoSC3DmVD4BMEmNr+E3DYhAACCCCAAAIIIIAAAgggUGsBgkO1pmJHBIInwNT2wWsTSoQAAggggAACCCCAAAIIhE2A4FDYWozyIlBFwE5t7zjStBmutmw1d1gQQAABBBBAAAEEEEAAAQQQqIMAwaE6YLErAkEUsFPbD+ifUDwuvTKRt3QQ24gyIYAAAggggAACCCCAAAJBFuBKMsitQ9kQqKWAP7V9lrTkfUcffUzvoVqysRsCCCCAAAIIIIAAAggggIARIDjEywCBCAjYqe3t7GV2ef0N3tYRaFKqgAACCCCAAAIIIIAAAgg0mQBXkU1GzYkQaFyB4cMSysuVVq5ytHwFvYcaV5ujI4AAAggggAACCCCAAALRESA4FJ22pCZpLpCTLZ0+Itl76LX/uvLS3IPqI4AAAggggAACCCCAAAII1E6A4FDtnNgLgVAIDDktoZb50pq1jt43+YdYEEAAAQQQQAABBBBAAAEEEDiSAMGhCkIbNm/Tnr2lFdZIm7du1wsTp1RaxwMEgiqQmSmNPD3Ze+itSby9g9pOlAsBBBBAAAEEEEAAAQQQCJJARpAK0xBl2Ve2X5+/7Sfau69Mz/7xh/4hp85epOvu+Nlhh5/4j1+qU3Fbrfhwrb7y7d9o9bqN/j4XjBmqe79xnTIzM7R0xWrd9bM/6cKzhx/2fFYgEESBgQMSevsd1+89tOwDR8cdywCzILYTZUIAAQQQQAABBBBAAAEEgiIQqeCQ53n6zk/+oIVLV6ln147lxna9XZ577EdyzH+ppbhdgX/3B/c/oZ7dOurpP9yjNes365pb7tNzr07WZePOSO3KXwRCI2BimhphklO/MtGV7T103LHx0JSdgiKAAAIIIIAAAggggAACCDS9QKTGnfzu0We1zPT0+fJVF1Yr2atbJ/XqfugWi8W0bftOzZz3vq799LlmpqccHdeji8aOHKCJb82s9hhvTJ6jy66/W3MXLa92OysRCILAaQPNzGV50kcfO/7sZUEoE2VAAAEEEEAAAQQQQAABBBAIpkBkeg7ZvED/fOFN/f3hu/T6O7Or1f76Dx5WZkaGTjmply65YKRysrO0cXOJbM+ibl2Ky5/TrUsHzV+8svxx6s6UmQv1tXse0nduvdo/hl3fKs8keWGJhIDtU+Y4TjTa1ASGzjpdevFVT+9MjpnX66Eec5ForDpWIuY6yohFpG3rWPeo756Z4co0bzTet1FvrDrWL9W2GbFI/Y5VR4Vo7m4/k1vkZCiRYNhzFFuY78bRa1XXfD+271vaNnpta78fx8y/s7Rt9Nr2aGoUieDQ7PlLde+vn9Tvf/o1de7Q7jCHdm1a6/KLx6iwoKUJBm3Trx75lyZNn6+H7rtNO3bu9vfPNoGi1JKdlamdu/ekHvp/5yxYplu/94C+efMVmjBuVPm2xMEha+UruBNaARsYMpFCRaVNRwyT/vu2tMx0cluxylP3bqFtmnoX3F5a2rdqVNq23iAROoAN7nvmvUvbRqhRU1U5+O8rbZsCic5fGxKy713aNjptWrEmtGtFjWjcP/gVmfdsNJqzSi2idf1TpXI8rKNAJIJDz/zfJLUtbOXnCbK5gpYu/1jrN23TPfc/rtuvv8wfKvbd264upxk+qK/u+P6DKtmxS61atvDX20TWqcXeb5Vvul4cXMr2H9ANd96vrp2LNGH8GanV/t9dew9UesyD8ArYX0Va5MQUpTYdMtjVm2+7euk1T1df8cm5hzZscDRnrqMsEycdfWZyxrPwtmblkmdnuuYXLzdSbVu5hun7yPY+sL96Rel9m76tWbnmtsdQ2f649uz75M+uys/iURgEcrNifrvuPxCtf2vCYN/YZbS9D/g8bmzlpj9+pvk8zjLfpWjbprdv7DPmZcdM2zbf9Q89lhq7het2/Ej01R59+qmyM4zZAJG95eXlmIsF17/vmgvCqktxu0J/VWlpmYpMUmrbY+Sj1RvKd1v18XqzPrmPXWm333LdBK3fuFX3/PKx8v24g0DQBYYOSch2irOzlq1d98lDy96d7mjK1GQwafv2oNeM8iGAAAIIIIAAAggggAACCDSUQCR6Do0eMUD2llqeeOpVbd5Sops/f4m/6q/PvqaORW016JQTtKd0n2zi6h7HdFCHojb+9oH9jtej/3hZJx3fXWvWbdJrk2bp6zd+NnU4k6copisvHau+vXvoC3f8VG0KWuk20yOJBYGgC+TlSqcNSuidKcmZyy7/TM2/wO/ffyh4NGmyq/EX8Itu0NuX8iGAAAIIIIAAAggggAACDSEQieDQkSBKtu/STx/8mw4cSF4Y9zSzlv3i7pvKn3bX7dfqpm/9SkPH3+jnJTl/9BBddM6I8u2p3kc2kfX95nlf/e4Dsr2PLr9kTPk+3EEgqALDzbT202a4WrLE0YaNjoqLbLaHw5dt2w6tmz3H1aiRCTPs8tA67iGAAAIIIIAAAggggAACCERTwDEJAau/UoxYfW0eoQ2btio3J1vt2xZUW7u1G7aopck11LKF6W5Ry2Xtlr213JPdgi5gcw4VFWZr/dbSoBe1zuV76RVX705z1bePp89MqL730E9+kaE9Jg97926eVn3oaOjghC44Lxq9h2zOofzcTG3Zsa/Odjwh2AKpnEPbdx/KGxfsElO62goU5GeRc6i2WCHbr33rbJWY9yw5h0LWcLUobqe2ueK7cS2gQraLzTlU0DJTm0r4HhWypjticVM5h0p2lR1x38bYwX5msARH4PCEPMEpW4OWxM5A1rVzcY2BIXuyTsVt6xQYatACcjAEGlFgxPCEycMlLVrkmCGXh4aPpU5pRlv6gSHzNtE4ExCye8yabRIP7krtwV8EEEAAAQQQQAABBBBAAIGoCqRNcCiqDUi9EKiNgB0edmr/hJmCVHp70uFv+23bkgGjwkJPxcWeTjzRM7/oSpPfPXzf2pyPfRBAAAEEEEAAAQQQQAABBMIjEKgrPzu1/FP/eUu/fuQpLViy0ld8YeIUTZm5MDyilBSBgAqMHOGZ6dyleQscpYJBqaJuPZhvqPDgJH1nmHxDNlw0Y6ar3WaoGQsCCCCAAAIIIIAAAggggEB0BQITHLL5fs6/8k7d/YtH9chf/qMlH3zkq7+34APd+aPfK56IRu6T6L6UqFnQBQoKPPXrZ3oPmbfS25MrDy3bujX5uI3pOWSXjh08nXCCZ/J9SFPoPRT0pqV8CCCAAAIIIIAAAggggEC9BAITHPrHc/9VkUkU/fxjP9Zpp/Qur9SFZw/X1m07tHrtpvJ13EEAgaMTGGV6D7kmDvTeXFfbdxw6RmqmsjZtDq2zvYfsMt3MdLaHvOuHYLiHAAIIIIAAAggggAACCERMIDDBoRdfn6qLzz9dvbp3qkTctUux/3hrSYUr2Up78AABBGor0Latpz5mxrK4mbBs8pRDb/+tqZxDpndRauncydNxx3raZyYveHfqoX1T2/mLAAIIIIAAAggggAACCCAQDYHAXPEVtMrXOjO0rOqydMXH/io7kxgLAgjUX8DPJ2R6D1WcjSwVHKrYc8ie6cxRyd5D06a72lta/3NzBAQQQAABBBBAAAEEEEAAgeAJBCY4dMbQU/TCxHf18hvT/fxCCZMYZf7iFfrhr55Q72O7qrh9hfEuwXOkRAiERqCovZmNrPeh2chsL6Id2+UPN7N5iSoux3Tx1KunJzvV/dRpgfm4qFhE7iOAAAIIIIAAAggggAACCNRTIKOez2+wp3/5mk9p0bJV+to9D/nHnD1/qf+3uF2hfv69GxvsPBwIAQQk23to8eKYZsxydZKZtt5OcV9oAkN2NrOqi+09tHxFzA8ODRuaUE521T14jAACCCCAAAIIIIAAAgggEGaBwASHsjIz9PBP7tCM95Zo4furtNPMn939mA46a/ipym+RG2Zjyo5A4ATsbGTHHedp6TJHL76UjAilprGvWthuXT316O5p5SpHdnhZKlF11f14jAACCCCAAAIIIIAAAgggEE6BwASHLF/CdF84rX9v/+Z5nh8k2rh5G8GhcL62KHXABWyQZ+mymNauqzyNfXXFtr2HVq6K+Ymphw1JKCurur1YhwACCCCAAAIIIIAAAgggEEaBagaRNE81fvfosxp03pf8aettCT5/20/12Rvu0YXXfluP//Pl5ikUZ0UgwgKpfEKpKlZNRp1ab//ankO2B5Gd0n6amdqeBQEEEEAAAQQQQAABBBBAIDoCgbnKe3fWQo0/e5jaFLaSvT9j7hJ99QuX6qoJZ+uv/349OuLUBIEACVQcIta6deVk1FWLmZq5bIqZ1r5sf9WtPEYAAQQQQAABBBBAAAEEEAirQGCCQxs3bdOJx3bzHafPWeIPJfviFeP05as/pdVrN+nD1RvCaky5EQisQPdunoabJNNjRyf83kGfVFA7a5ntbbR7tzTTJLJmQQABBBBAAAEEEEAAAQQQiIZAYK7w2rZprVWr1/uqb737nvqc0F0ZGTGVHeyisGOnuSJlQQCBBhc475yERp2eMAHZIx861dPonSmu9h848v7sgQACCCCAAAIIIIAAAgggEHyBwASHzh45UH9+eqLOv/JOvb/8Y332U6N9vbemzpXjOOrauTj4mpQQgYgLHG9mOOvcydOuXdKs2YH5+Ii4OtVDAAEEEEAAAQQQQAABBBpXIDBXd5/77Hn6yucuVqfitrr9S5/WuWee5tf8zSlzdKHJRdS6VS26NTSuFUdHAAEjUN57aLKrA3FIEEAAAQQQQAABBBBAAAEEwi4QmKnsY7GYbjLBoarLwz+5o+oqHiOAQDMKnHCCpw4dPK1f72j2HFeDByWasTScGgEEEEAAAQQQQAABBBBAoL4CgQkO2YocMN0Q5ixYptXrNh1Wr/FjhykzM1DFPayMrEAgHQQcU8kzRyb093/FNMn0Hhp4akImtsuCAAIIIIAAAggggAACCCAQUoHARFvenPKevnHv/2j3ntJqKc8c3l+FrVtWu42VCCDQtAIn9vZUXORpw0ZH781LBoiatgScDQEEEEAAAQQQQAABBBBAoKEEAhMc+u0fn1bnju1137euV4eiNoq5ldMh5bfIbag6cxwEEKingMkRr1Gm99C/no5p8hRHA/rLJI6v50F5OgIIIIAAAggggAACCCCAQLMIBCY4tHtvqc47c7B6H9u1WSA4KQII1E2gz4meJhZIm7c4en+po94mFxELAggggAACCCCAAAIIIIBA+AQqd89pxvIP7HeCZs1b2owl4NQIIFAXAdu5b/jQZDLqd6YE5qOkLlVgXwQQQAABBBBAAAEEEEAAASMQmJ5Dt35xgi685lv66e/+qqL2hYc1zpWXnq0sElIf5sIKBJpTYIBJRv3GW64++tjxb12PofdQc7YH50YAAQQQQAABBBBAAAEEjkYgMMGhqbMWaW/pPj3x1Kt+PZwqCUwuPu90ZZGQ+mjamOcg0GgCWZnyp7J/a5Krye+66npMvNHOxYERQAABBBBAAAEEEEAAAQQaRyAwwaEnTVCo7wk99at7vqKidoVyXbLbNk6Tc1QEGlZgyOCEHxh6/31H27Y5Kiyk91DDCnM0BBBAAAEEEEAAAQQQQKBxBQKTKGSPSUh92qm9/ZnKCAw1bqNzdAQaUiC/hXRyH08JExOaOp2gbkPaciwEEEAAAQQQQAABBBBAoCkEAhMcGjmkn+zQMs+j10FTNDznQKAhBYYNSSamnvOeq31lDXlkjoUAAggggAACCCCAAAIIINDYAoEZVnZMpyL9+emJ+vZ9j6i4fZvD6v3lqy9Ubk72YetZgQACzS/QoYOnHt09rVzlyAaIhpqhZiwIIIAAAggggAACCCCAAALhEAhMcOi9hR+ooFW+3p46r1q5z332PIJD1cqwEoFgCNiA0MpVMX9o2ZDTpCo55YNRSEqBAAIIIIAAAggggAACCCBwmEBggkO/uOvGwwrHCgQQCI/ACSd4KizwtHWro6XLHJ1wPENEw9N6lBQBBBBAAAEEEEAAAQTSWSAwOYdq0wjjrv6m1qzfXJtd2QcBBJpYwE4wOGRwMiD07rRQfbQ0sRSnQwABBBBAAAEEEEAAAQSCJRC6KzgSVgfrBURpEKgoMODUhLKzpJUrHW3YyMxlFW24jwACCCCAAAIIIIAAAggEVSB0waGgQlIuBBCQbM74U/snZPsPTZ1GcIjXBAIIIIAAAggggAACCCAQBgGCQ2FoJcqIQIgE7NAym4x63nxXe/aEqOAUFQEEEEAAAQQQQAABBBBIUwGCQ2na8FQbgcYSaNvG0/HHedp/QJo5m4+YxnLmuAgggAACCCCAAAIIIIBAQwlw5dZQkhwHAQTKBey09naZPsNVPHm3fBt3EEAAAQQQQAABBBBAAAEEgiVAcChY7UFpEIiEQM+enoqKPO3YKS1cRO6hSDQqlUAAAQQQQAABBBBAAIHIChAcimzTUjEEmk/AhoOGHZzWfirT2jdfQ3BmBBBAAAEEEEAAAQQQQKAWAmkVHNq1e682bi6pkWXD5m3as7e00vbNW7frhYlTKq3jAQIIHFmgX7+E8vKk1Wscfbya3kNHFmMPBBBAAAEEEEAAAQQQQKB5BEIVHHr8N99Sx+K2nyi1r2y/rrjph7rkuu+V72fXfe2ehzR0/E0a85nbNf7qb+rD1RvKt6/4cK3Ov/JOjf3MHRoy7kbd+aPfa7/NpmuWpStW666f/al8X+4ggEDtBDIzpEEDkgmH3qX3UO3Q2AsBBBBAAAEEEEAAAQQQaAYBc/nWfMt9D/xFcxZ8UKsC/PH+b6hdm9afuK/nefrOT/6ghUtXqWfXjuX7PvPi25o2e7FeePzHKmpXqNvvflD3/uZJPfLzr/v7/OD+J9SzW0c9/Yd7tGb9Zl1zy3167tXJumzcGeXH4A4CCNRdYPBpCU2e4mrxYkc7dkitWtX9GDwDAQQQQAABBBBAAAEEEECgcQWateeQDdR061Jcq5vrHHlYyu8efVbLTE+fL191YSW1V9+eqXPPPE09TMCoRV6Orv3MOZo6a6F2mmFm27bv1Mx57+vaT5+rvNwcHdeji8aOHKCJb82sdIzUgzcmz9Fl19+tuYuWp1bxFwEEahBo1VI66STPn7Fsmpm5jAUBBBBAAAEEEEAAAQQQQCB4As3ac+i6yy9oMBGbF+ifL7ypvz98l15/Z3al427YtFVnDjulfF3XzsVKJDxt3lKiMjN8zPY4skGq1NKtSwfNX7wy9bD875SZC/3had+59WqdclIvf32LnGYlLC8bd+ovYAOQNgRJm9bfsuIRRo+U5i+QZs9xdcE5rrIyK25tmvsZMUcx16Ftm4a7Sc+SnenKpW2b1LypTmbft+adK6cWPw41VZk4T8MI2PdsbnZMWRn8aNAwosE6Ct+jgtUeDVEa+x3Kfk+mbRtCM1jHsJ/DMfPvLW0brHZprtIELrJhgzbxePwwj0ybwKSGZfb8pbr310/q9z/9mjp3aHfYXjt37VFOTnb5+uysLP/+DrO+zOQjskt2dnKdf99cve7cvcdfn/rfnAXLdOv3HtA3b75CE8aNSq2W/fLKEiEB8w8fbdqw7dmzu9S9q6dVH0nvzXU0fEjDHr82R7Nfauz1JW1bG61w7WMDB/ZTmLYNV7vVprT2QsRzPdq2Nlgh28e+Z2P2vRsLWcEpbq0E+DyuFVOodvJ/QOV7VKjarLaFdU2M3rYv79vaikV7v5ojLk1c763bduibP35EM+cukU0gXXWZ/PzvVNAqv+pq//Ez/zdJbQtb+XmCbK6gpcs/1vpN23TP/Y/r9usvU6uWLSodc19Zmf+8Vvl5fs8h+6DiOe19uy212N5FN9x5v7p2LtKE8ZXzEG3ffXhZU8/jb7gE7Aej/SWTNm34djvtNMcEh2J6Y1JCJ/WN+xfzDX+Wmo9oe5fk52bStjUThXaL/aXLfqHhfRvaJqyx4AX5jvk3Oq49+w7/wajGJ7EhFAL2l+pdpQe0/0By0oJQFJpC1krAfibzeVwrqlDtlBlzlZHB96hQNVotC5tne3GaXv3N9b6lx1ItG6qJdgtMf94HTL6g9xYu02cvGu1X/avXXarv3na1OpnZyfr3PVa5FXr+VLUZffqpumDMUD9AZINEeSavUIb5ELP3XRMOtbmNPqowO9mqj9f7wxDaty0w2wr8LutVt9vnpBb7y/Qt103Q+o1bdc8vH0ut5i8CCNRS4KQTPT8Z9cZNjlassL8ZsyCAAAIIIIAAAggggAACCARFIDDBoTnzl+mqCWfrVhOEscuY0wfo8ovH6JYvTvCTTCcSNf+6NHrEAN38+UvKbyOH9PNnNrPr8lvk6pxRg/TSf6fJTlm/e0+pnvjXKxo6sI+/rbB1Sw3sd7we/cfL/jbb6+i1SbN09hmDytsoMyOmKy8dq4d+crtefH2qfv3IU+XbuIMAAkcWMLFaDR7EtPZHlmIPBBBAAAEEEEAAAQQQQKDpBQITHLI5ftoUtDK5gbL8oM1Hazb6Gv1O7OUHbRYt/fCodS41OYJO699bn/rcdzR0/I3+dPXfvuWq8uPddfu1Wr5qjb/t0i/eJRtcuuicEeXbbe8ju9gk1PfffZP+9PeX9LdnXy/fzh0EEDiywKCBCdnUYcs+cLRlC72HjizGHggggAACCCCAAAIIIIBA0wgEJueQzSf08dpkQKh/n2P1z+ff0OmDT9a02Yt8CTtErLbLNZedI3tLLdlmIOWvf3CzbGLqXWb6+o5mqFrFpVf3Tnrlbz/X2g1b1NLkGmppehulluGD+mjWK/+beqgzhvXXvNf/WP6YOwggUDuBPPO26tcvoVmzXU2d7mjc+V7tnsheCCCAAAIIIIAAAggggAACjSoQmJ5DJx7XzeQc+sCv7BVmCNfkGQs0ZNyNflJpO+yr+zEd6g1hAz9VA0MVD2rzG1UMDFXcxn0EEKi/wLAhnp+Mes5cV6Wl9T8eR0AAAQQQQAABBBBAAAEEEKi/QGB6Dt1753XltTlj6Cl65Bdf19tT58kGjc47a3D5Nu4ggEB4BYrae+rZ09Nyk5R61hxXI4bVnEssvLWk5PIoIOUAAEAASURBVAgggAACCCCAAAIIIIBAuAQCExz667OvqVe3zhp8am9/9rBhJmG0vbEggEC0BIYOTpjgUEzTZrgaNjQhl/RD0WpgaoMAAggggAACCCCAAAKhEwjMsLLpcxbrC3f8VOOv+ZYeMzOHlezYFTpMCowAAkcWOP44T23beCopkZYsITJ0ZDH2QAABBBBAAAEEEEAAAQQaVyAwwaFffv8revgnd+i4Hp31q0f+pbMm3KY7f/R7zZ6/tHEFODoCCDSpgGPiQUNN7iG7TJ0emI+gJjXgZAgggAACCCCAAAIIIIBAkAQCM6wsZqaLHzW0n3/bWrJTz78yWc+89Lau/uqPdWz3zvrbw99TXm5OkOwoCwIIHKVA/1MSev2/rlZ96GjdekcdOzBz2VFS8jQEEEAAAQQQQAABBBBAoN4CgfzZ3k5rf3yvY0wvoi5+BVd+tE7798frXVkOgAACwRDIzpIGnJpMRv3utEB+DAUDilIggAACCCCAAAIIIIAAAk0gEJieQ7au6zdu1bMvTfJva9ZvVoeiNrr585fo0nGj1LpViybg4BQIINBUAkMGe5o6TVqwwNE5Y6V83uJNRc95EEAAAQQQQAABBBBAAIFKAoEJDv3sob/ryadekWP+O31IP33n1qv8v3a4GQsCCERPoLDA0wkneFpsklLPmOnqrDOY1j56rUyNEEAAAQQQQAABBBBAIAwCgQkO7S3dpxuuuUgTLhjl9xgKAx5lRACB+gkMG5IwwaGYZsxyNfL0hDJi9Tsez0YAAQQQQAABBBBAAAEEEKi7QGCCQ3ffcW3dS88zEEAg1ALdu3nqYJJRrzdJqRcsdNS/H4mpQ92gFB4BBBBAAAEEEEAAAQRCKcCYrVA2G4VGIDoCww5Oa09i6ui0KTVBAAEEEEAAAQQQQACBcAkQHApXe1FaBCIncHLfhJ+Met06x5/aPnIVpEIIIIAAAggggAACCCCAQMAFCA4FvIEoHgJRF7B5hgYNTCajnjqdj6Sotzf1QwABBBBAAAEEEEAAgeAJcCUWvDahRAikncDgQQnFTJBoiZm5rKTESbv6U2EEEEAAAQQQQAABBBBAoDkFCA41pz7nRgABXyA/X+rbx1PC5KOeNoPgEC8LBBBAAAEEEEAAAQQQQKApBQgONaU250IAgRoF7LT2dpk1x1VZWY27sQEBBBBAAAEEEEAAAQQQQKCBBQgONTAoh0MAgaMT6NTRU7eunkpLpTlz+Wg6OkWehQACCCCAAAIIIIAAAgjUXYArsLqb8QwEEGgkgVTvoWnTHZkRZiwIIIAAAggggAACCCCAAAJNIEBwqAmQOQUCCNROoHdvTwWtpc1bHH3wAbmHaqfGXggggAACCCCAAAIIIIBA/QQIDtXPj2cjgEADCrgmHjT4tGTuoXen8fHUgLQcCgEEEEAAAQQQQAABBBCoUYCrrxpp2IAAAs0hMHBAQlmZ0vLljjZvpvdQc7QB50QAAQQQQAABBBBAAIH0EiA4lF7tTW0RCLxAbo50Sr+En3Noqsk9xIIAAggggAACCCCAAAIIINC4AgSHGteXoyOAwFEIDB3syYaF3pvn+rOXHcUheAoCCCCAAAIIIIAAAggggEAtBQgO1RKK3RBAoOkE2rf31KuXp7IyacYsPqaaTp4zIYAAAggggAACCCCAQDoKcNWVjq1OnREIgcDwocnE1FOnu4rHQ1BgiogAAggggAACCCCAAAIIhFSA4FBIG45iIxB1AdtzqLjY086d0rwFfFRFvb2pHwIIIIAAAggggAACCDSfAFdczWfPmRFA4BMEbM6hEcOSvYcmv+v4Cao/YXc2IYAAAggggAACCCCAAAIIHKUAwaGjhONpCCDQ+AIn9/XUqpW0caOjDz5g5rLGF+cMCCCAAAIIIIAAAgggkI4CBIfSsdWpMwIhEYiZT6ihg1O9h/i4CkmzUUwEEEAAAQQQQAABBBAImQBXWyFrMIqLQLoJDBqYUHa2tGKlo3Xr6D2Ubu1PfRFAAAEEEEAAAQQQQKDxBQgONb4xZ0AAgXoI5JjA0KAB9B6qByFPRQABBBBAAAEEEEAAAQQ+UYDg0CfysBEBBIIgMHRIQnaI2YJFjkq2B6FElAEBBBBAAAEEEEAAAQQQiI4AwaHotCU1QSCyAq1NUuq+fTwlTAeiqdP42IpsQ1MxBBBAAAEEEEAAAQQQaBYBrrKahZ2TIoBAXQVGDE/IZhyaNdtVaWldn83+CCCAAAIIIIAAAggggAACNQkQHKpJhvUIIBAogQ7Fnnr29LSvTJoxi4+uQDUOhUEAAQQQQAABBBBAAIFQC3CFFermo/AIpJfAiGHJxNRTp7uKx9Or7tQWAQQQQAABBBBAAAEEEGgsAYJDjSXLcRFAoMEFevXyZHsQ7dwpzVvAx1eDA3NABBBAAAEEEEAAAQQQSEsBrq7SstmpNALhFLA5h1K9hya/68gLZzUoNQIIIIAAAggggAACCCAQKIFIBYdKTTKSD1dv0OatRzfX9YbN27Rnb+VMt/ZYL0ycEqhGozAIpLNA376eWpnZyzZudPTBBzZcxIIAAggggAACCCCAAAIIIFAfgYz6PDlIz/1/P/wfvfzGNDPVdbIvwSkn9dLvfnSr2hS20tTZi3TdHT87rLgT//FLdSpuqxUfrtVXvv0brV630d/ngjFDde83rlNmZoaWrlitu372J1149vDDns8KBBBoeoGYCWkPG5LQKxNdTX7X1XHHknyo6VuBMyKAAAIIIIAAAggggECUBCITHDqmU3s9+cB31Of47ibIs0nX3PJj/eWZ1/TV6y6V5yUDRs899iMzFfahngbF7Qr8tvzB/U+oZ7eOevoP92jN+s3muffpuVcn67JxZ0SprakLApERGDggoTffdrVipaN16xx17MgAs8g0LhVBAAEEEEAAAQQQQACBJheIzLCyW66boP59jvV7+3Tu2F6u66p16/xKoL26dVKv7odusVhM27bv1Mx57+vaT5+rvNwcHdeji8aOHKCJb82s9NzUgzcmz9Fl19+tuYuWp1bxFwEEmlggJ1saZAJEdnnH9B5iQQABBBBAAAEEEEAAAQQQOHqByPQcsgT7yvbrf554XpOnz/d7EF1y3umVZL7+g4eVmZEhO+TskgtGKic7Sxs3l/g9i7p1KS7ft1uXDpq/eGX549SdKTMX6mv3PKTv3Hq1fwy7Pjc7ltrM35ALuAf7ldGm4WjIs0ZKU6dLCxc5uvD8mAqTHQGrLXymGYsWcx3er9XqhHtlZoZtWz6Lw92K1Zc+I2Z6+nouieer5wn1WtdxlJMZk9/Goa4Jha9OgO9R1amEe12G+dHdvm9p23C3Y3WlzzLfo+xnMW1bnU76rYtUcCgej2v5qjV+UumSHTFt37FbLfPz1K5Na11+8Rhz8djSBIO26VeP/EuTTADpoftu046du/1WzzaBotSSnZWpnbv3pB76f+csWKZbv/eAvnnzFZowblT5NvvlhiUiAnbE4cEvrBGpUaSrkdNOGniKp+mzPb071dWlFx4aMlq14uY7jW1a/2Kk6jYeh1vAfqFx/PdtuOtB6Q8XsBciGeZLq21flmgJOOYzOTPTtG+C71DRatlkbfhuHL1WtR/D9kbbRq9tY+Z7VCpgH73aUaO6CkQqOGSHhf323lv8nkDX3nqffvPHp/Xz793gDxX77m1Xl9sMH9RXd3z/QZXs2KVWLVv4622vo9Ri77cyQaXUUrb/gG6483517VykCeMr5yHatqsstRt/Qy5gPxizC13RpuFpyEGnOZoxO6Yp0zwNG7ZfOTnVlz0701V+biZtWz1PqNe2yMnwf/HavvvQZ3ioK0ThywUK8rNUtj+uPftIOl+OEpE77Vtna+eeA9p/IDk8OCLVohpGIDc7l39rI/hKsD2wC1ryPSqCTas8Mwomy3R2KGmma1r7mcESHIFIJuuwvzL2OKajNpkhY9Utxe0K/dWlpWUqMkmp7f4frd5Qvuuqj9eb9cl97Eq73eY0Wr9xq+755WPl+3EHAQSaV6BDsadevTwzpFSaMSuSH2fNC8zZEUAAAQQQQAABBBBAIC0EInE1ZYeG3fubJ7V0+cd+3qHpcxbrlTena2C/4/1G/Ouzr8kmkt65a482mGFlv3v0WRM86qAORW1U2Lqlv9+j/3hZu/eU+sd4bdIsnX3GoPIXQGZGTFdeOlYP/eR2vfj6VP36kafKt3EHAQSaV2D40OQvz1OnuzIjS1kQQAABBBBAAAEEEEAAAQTqKBCJYWWOSSgy87339bdnXy+v/gWjh+j6q8b7j0u279JPH/ybDhxIXjn2NLOW/eLum8r3vev2a3XTt36loeNvNEPSpPPNcy86Z0T5djvzmV1sIuv7zfO++t0HZHsfXX7JmPJ9uIMAAs0jYHsO2R5E6zc4mjff1an9GabQPC3BWRFAAAEEEEAAAQQQQCCsAo5nlrAWvmq5d+7eq81bSvwhYS3yKicfsXmENmzaqlwzB3b7ttVPa7R2wxY/gXXLFrUf+7h2y96qxeBxSAVszqGiwmyt31oa0hqkb7HnznP09L9jKiry9JUb4mbeucpLKufQlh37Km/gUegFyDkU+iassQLkHKqRJvQbbM6hEpMnjJxDoW/KwyrQqW2u+G58GEvoV6RyDm0q4XtU6BuzSgWaO+eQ/cxgCY5AJIaVpThtUKdH146qGhiy2+0MZF07F9cYGLL7dCpuq7oEhuxzWBBAoPkF+vb11LqVtHGjow8+qBoaav7yUQIEEEAAAQQQQAABBBBAIMgCkQoOBRmasiGAQOMJmEk0NHRIcjjZ5Hf5WGs8aY6MAAIIIIAAAggggAACURTgKiqKrUqdEEhDgUEDEjKjRrVipaO16+g9lIYvAaqMAAIIIIAAAggggAACRylAcOgo4XgaAggESyDbBIYGmgCRXeg9FKy2oTQIIIAAAggggAACCCAQbAGCQ8FuH0qHAAJ1EBhmhpbZIWYLFzkq2V6HJ7IrAggggAACCCCAAAIIIJDGAgSH0rjxqToCURNoZZJS2+TUCdOBaPIUPt6i1r7UBwEEEEAAAQQQQAABBBpHgKunxnHlqAgg0EwCo0Yk5JiUQ7PmuNqxs5kKwWkRQAABBBBAAAEEEEAAgRAJEBwKUWNRVAQQOLJA+/ae+pzk6cABadI7fMQdWYw9EEAAAQQQQAABBBBAIN0FuHJK91cA9UcgggJnjqL3UASblSohgAACCCCAAAIIIIBAIwkQHGokWA6LAALNJ1BUoffQO5P5mGu+luDMCCCAAAIIIIAAAgggEAYBrprC0EqUEQEE6iyQ6j00Y5arzVvq/HSegAACCCCAAAIIIIAAAgikjQDBobRpaiqKQHoJ2N5Dp/ZPKB6XXnzZZKhmQQABBBBAAAEEEEAAAQQQqFaA4FC1LKxEAIEoCIwdnVB2trRoiaMly7woVIk6IIAAAggggAACCCCAAAINLkBwqMFJOSACCARFIL+FNOr0hF+cp5/3lCA+FJSmoRwIIIAAAggggAACCCAQIAGCQwFqDIqCAAINLzBsaEJtCqW16zzNNPmHWBBAAAEEEEAAAQQQQAABBCoLcKVU2YNHCCAQMYGMmDTuvGSXoTfedFVaGrEKUh0EEEAAAQQQQAABBBBAoJ4CBIfqCcjTEUAg+AJ9T/J0XC9Hu/dIb77Nx17wW4wSIoAAAggggAACCCCAQFMKcJXUlNqcCwEEmk3gsoscuWbSsmkzXG3ZwuxlzdYQnBgBBBBAAAEEEEAAAQQCJ0BwKHBNQoEQQKAxBLp0cnTqqcmp7V+eyEdfYxhzTAQQQAABBBBAAAEEEAinAFdI4Ww3So0AAkchMPas5NT27y919MFyeg8dBSFPQQABBBBAAAEEEEAAgQgKEByKYKNSJQQQqF6ghZna/oyRyantX37VVSJ5t/qdWYsAAggggAACCCCAAAIIpIkAwaE0aWiqiQACSYGhQ8zU9m08bdzkaAZT2/OyQAABBBBAAAEEEEAAAQREcIgXAQIIpJWAndr+3LHJLkNvvOVqL1Pbp1X7U1kEEEAAAQQQQAABBBA4XIDg0OEmrEEAgYgLnNjbU88envbYqe1NgIgFAQQQQAABBBBAAAEEEEhnAa6K0rn1qTsCaSxw/jkJf2r76WZq+82bSU6dxi8Fqo4AAggggAACCCCAQNoLEBxK+5cAAAikp0BxsaeBA8zU9maEGVPbR/M1sH1HNOtFrRBAAAEEEEAAAQQQaGiBjIY+IMdDAAEEwiIw2kxtP3+Bq6XLHC1531HvE7ywFJ1y1kLgmX/HlGH+lRs7OqGOHWjbWpAd1S6r1zhaucqRYzrgueYnJ/vX3nJzPPXo7qlVq6M6LE9CAAEEEEAAAQQQaEIBgkNNiM2pEEAgWAIt8iQbIPq/l10990JMnTsfUMv8YJWR0hy9wK5d0iYzZHDZBzGd3NfTmDOTM9Ud/RF5ZnUCNrj65ts1d0Quau/ptEGeBpmeejGTEJ7l6AT27JVmmhkWbQAuFYSzf22S/Y4dPXUwAVDXBOVYEEAAAQQQQACBoxEgOHQ0ajwHAQQiIzBkcMLvOfTBcke2p8k1V8b9Xg+RqWAaV2TbtkNXyvMXOFq0KOYPJTxjVIIgYAO+LnbvTh4sK0t+AMgznbTsrWR7skfRxk2OXnzJ0ZSpjsaYYOzJfTzeY0fhv3Wro9f+W3MQLidHfu/HM0cSBD0KXp6CAAIIIIBA2gsQHEr7lwAACKS3gA0fXHpxXA/9T4aWr3A0abKrUacnp7pPb5lw1/5AXIqbW8xcS9/21QN6w/Rsee89V9Nnupoz19VQExQ8fUTCDH0Kdz2DUPrde5JBuEsuiqvPiZWH79mcXkuXmqDGG642mSDRU8/ENHmKp7PHJHRsr8r7BqEuQS6DnV0xtQwfmvADcAnju2+fo48+lraaYOh7cx3Nmx9T/34JnTnKU0EBxikz/iKAAAIIIIDAJwsQHPpkH7YigEAaCOS3kOyF7Z//FtPr5iK2XVtPJ1W5yE0DhkhVcbcZUmYvi1uYtm3dWrr4woRGDPP89l28OBkEtEN0xp0fV7+TuYCuT+OnghZ2mGbVxQbnTuzt6YQT4pprgnL/fdPVuvWOnvhLTDYfkQ0SdemMf1W36h6nnE/p5+k8M9ti1cX2LJo02QaIXM02gdC586UB/RMaZXoStSbvU1UuHiOAAAIIIIBAFYGa+ydX2ZGHCCCAQJQFjjs2eaFqh8M8/WxMH68+NCQpyvWOat127U62X37+ocBD+3ae/r9Px/WlL8bVq6envaXSU6at7a10X1QlGr9eqWFl1QWHUme3uXBONYGKW28+oHPPTigvV34S60f+GPOHc+Kfkqr5b6qHVou8Q6/pinu3aePpIhME/epX4qbnkCfPxI9mmADobx7I8POq7TQBUxYEEEAAAQQQQKAmAYJDNcmwHgEE0k7g9OEJnTYwof0HpL/+I6aKOWvSDiPkFbbJqO2SX02C8c6dPF17VVwXfyohmydn3nxHD/0+wwzNISCYVKvb/1NBi7wW1QctKh7Nzh43YljCH+pnh29mZErvzTP+Zljnqg/xr2hV9X6q51BeNT20Ku7bptDzh8refFPcT8Ruh/ZNne7qtw9m+EMqK+7LfQQQQAABBBBAICVAcCglwV8EEEDACIw7PyHbi8j2hnjyr672mhmCWMInsGvXwZ5DnxCwsENubvxSXDZYVFIi/emxmD/syeZxYamdQMLEg+x7xPYMyjW9gWq72OTJY0cndJPxt8PKSrZLjz1h8hG9y9eSmgx3H8w59Ek9tCo+1w6P/fSlcX3lhrifqHqf6R337HOu/v6vmOzMZywIIIAAAggggEBFAb6FVdTgPgIIpL2AnRr6M5fF/WmhN29x9Ld/xmSTG7OES2DXwRm0qus5VLEmbc1QnC9+IV6ehNxOyf5HEySi11hFpZrv294sdiimDQwdzTTqbU0A44ufj5vkySbBsjnNKxNdf5jZAdN7j6WywJ6Dib/zahhWVnnvQ4+K2nu64rNxTTCJ93OypUUm55btKbdyFT21Dilxr7kFbFDeviZffMnVY0/G9KfHk7eXXnH912zqM725y8n5EUAAgSgLkJA6yq1L3RBA4KgEss1Qo6suj+t//5gc6vLv52OacImZ4v6ojsaTmkPgk4aVVS2PTZpse7HY2bOe/ncy39RD/xvTJZ+Kk5i8KlaVx3sO5naqzZCyKk8tf2gDsqPPTKhjh6S/HWa2ZWtMX/6clFOH3kjlB4zondoOK6up+jaRdbeucfMad/XhR45/AW6H0o4+K+HP6lfT81iPQGMJ2CCwnSV08RJHS5a6Sr3GK57PDjd9d5r8f3/bmGByT5PIfvBpnoqLjjyMteJxuI8AAgggcGSB2PfNcuTd2KMmgZ17+XmzJpuwrXccRy1yM7SLNg1b0x2xvBkxR1mZMe3dV/suQNnmF/aePTyTj8bV2nWOn9zVPmYJlkBWhivXdFnZt7/yWDA7W9OmzY6fBLmofe3KXFCQTJpcUuJonWnzhYtcmY8FdevmERisgXCjmZ7ezo5ljU/tX7/3R/t20gnHefpguaMNGx3NmmsvBKW69pSpoaihXz1pih3m6mjkCM+YHF117HC+/qeY17N5XdsAkb0tN949utdtWODRnf3Qs1rkZKjUvGcTdlwiS6QEWuZlqrbfjW0voZcnxvwZDPfvl9qZSQMGDfD8npz278l9PbVta3olmgCynWTADhe2/x7PnOlqzVpHRUXV55WLFGhAKhMz/87mZJshqaW1/x4VkKJTjCMIZJrvUTHzK1lpWfO0rf3MYAmOAD2HgtMWlAQBBAIm0KHY84eY/eXvMb01yZUNHgw8tXIQ4miKbGdD62zyrJzYmymmj8avNs9JzaCVb6ayr8uSay6ePzPB5sFx9aoZ4mSnXreBCtuLyCavZqksUJ4Hp47OlY9y6FGxec992cwmZ/Pi2B4DDz3imBm4HPUzF4npvpT30qrjsLKqbuYaT2edkfBn7LMz9a1e4+hh01Nu3PlmljMTOGJBoKkEdh7MDdfdBOAvvCCh9mYIZNXF9ui0ix12tm69o7mmZ+HsOa6WLjOBzRUxf0jqyBEJP4BU9bk8RgABBBComwA9h+rmddjetf115LAnsiJwAvQcClyTNFiBjqbnUOrkbdskf5l8f6mjpeYWi5meJP9/e+cBH0WZ/vFndxMCgRB66B2kdwSRKmKv2LCiop69lzu9O8923l9PPbuevXdFRQ8BQUEUlSYdpIP03hOyu//n905ms0k2m7abnd39vXyGnZ3Mzrzv9532/uYpzYs+wNrrl/S5SR9ux+nb0t+Xu2TGDOsBF7FEEGS2vNYAJe0zkf9enOXQ1B8sK4vBA8tnZdGsqd8IeMvU1QEDkiXa921bV651RTz026rV1rHcSgd37dXqJxIlVV8idlMXKG+OCkRrRRYvdgvcT2C5B4uXZCwYGH87Wa3ktP1wgYwEh8zMfEu5DXqML17qFsRZa9PaL8gqF81Cy6Fo0o3ttstiOYQsenv2uOTskT5p3Cj89QPHfM0MMQkj+vTRrKJqabR+vUtWapwi3E9bNBOpHiGROrYEnbl3Wg45s18iUStaDkWCYuJsQw01E6ccys6RNes3y7YdmvYkRNm3/6Bs2aYpaYopm7ft1Awehwr8Fdv6cuKPBZbxCwmQQHIR6NPLJycer6MzfTidpAO0sV+4Tbr78lBYqMFg7YJBMEzjsc2nnvPI0zphHsvCPybbW+BncQTsbGXVa5SfJLLWXaVWLHibvUWth1542WPeVhe3z2RcbscIibSwiThQ5450ycjT/MYiYNp0t7z7gUeQcSsZiwn8rQ2vpiJyJIQhmyECVJ+jlnIjT/cKYq3NX2AFq167Lv86Za/LTxKINAHbciijRtm2nK6xyJBZ9NJLvMaiF/fM51+ysh0iQD4LCZAACZBA+QhE+d1Q+SpVnl/d8cALMn7KzwH/9e6d2sgzD90kdWrXlOycw3L3wy/JN9/9ah6qWjTJkmcfvkVaNM0yu1q5ZoNcd/eTsn7jFvP9pOH95cE7x0hqaoosW7le/v7Iq3LqiAHlqRZ/QwIkkCAEjurnk1qZfoEbBuLZIFbH6af6BObwZSkLFlmDrksv9kqzZn4T72PxErfAMgkxcrb+4JKpP4hk1hTjdtaxA4LIWgPksuwnmdfVS77k5IjoJdxkZ6oIC6QDv2qMV1OAe0zGHLgYwiVnyKDIWG9UpG5O+K3tvhetN/YD+um5UMsrH3zsMefIf1/1yIXn+aSOZplLplLeTGWlZQR3subNvPLRp5Y4jUxROMaHaBY5WCuxkEA0COzfZ221vCJ+Kw1Ofd3VuTJ+gltmz3abbIdLlsINOPmuEdHoH26TBEgg+QgkjOVQs8b15a2n75G5E1+WcW8+LOs2bJF3Pp1kevTTr6bKz7MXy5dv/FNmjHteGjesLw8++Vagt+9//E1p3aKR/PzV8/LpKw/I1Bnz5PMJ0wN/5wwJkAAJgACEGqTdRpaU7Ttc8poOoL78yl1qa4bNmzULk7ptYCDdUh9qIV50OMIvZ+pb+ztvyxUIRv2PtOIQ7d4jApP71970yCOPpRhxAg+9hxkDv8SD0bYaqlEBq6HgncCi4rxzvDJiuApC+gfEIXrvQ48cSlIrlmA2+/PSq1evYByc4G0WnscA8E8q0DXQ826rBsB+8RWPrFyVXIpFILZTOQNRF2Ya6jsEtysu92rAa5/A+mLK93r90WvcrtDG2KE2kTDLFqqIj6D0tEKJXpfi+on7Ga6vVSoQjxa/P/0Un1x0gde4neHFzXMvemSWxiViIQESIAESKBuBhLly3jjmLOnRua2x9mnSqL6aobslM9OyU50wdaYcP7SvtGreSON6VJXR5x4nM2YtlL3qZrZz916ZOW+pjD7neEnXSKTtWjWVYwf1konfzwxJcsr0OXL2lffKb4tWhPw7F5IACSQ2AaTbvvpKryD1tlvjD/06yy3PPJ9irEpKSrxjWw110kDUhd/GIxsLYqqcdIJPbr051wTlHTzQZ7K3HDgoMuc3l3Gr+b9/p8iHn3hkwUKXHCroBZvY4MvQurKksS/tZiFFYNCMAQhcGiDUvahuZhArkrlEy62sMNPatf1ypQoXEFMP6vnw5jseI54WXi9Rv1cWZ7jzQQSFUI34LtZAO8VcbxKVbah2jZ/gMW5K/9LrLazWZqpVys6dyX2uh+JUkWX784JRl9dqqPC+4QZ83TW50r2rX2A9+vmXbkE2NMTrYiEBEiABEigdgYRxK0Nz4T72wptfyPRf5kvn9i3lzBMGGgqbt+6QoUd1DxBprm5lSJ+6bfsuvYHk6pshddvIczHDSi2aNpT5i1cF1rdnfpy5UG677zm556aLBW5rKGmaHpslMQhgsI5HP/ZpYvRncCtSU1wqxrgi17f6lvP44ZoSWh9CPx7rkrXrxGRXqq3ZzJB+t2kTTcmrgaxr1xYTwNquy6Il1uCiR7eS69K6hYpFOp18vMiWrX5ZuFgE4tIfG/RThaEFCz0mFksz3Ve7tiLt9cG4WVMr5a+9v2T4RLBxBMoMPm+z80SzmhkFl0eCR+cOIo2u8ctb71kplRGHaMQwvwpHyccePG13p9qZbu2DSBDO3wb6NUXVCnu7+Lz0QpEJ36pVy1SRr8drAOWtbjnjVH+B8yx/C4kzl5NnpVazRuSP6VCUOrQTueV66/qGaw8E6ZX6WHTqSf4Ku2pif0gAYYLJRzKAUqiGlGMZAh3DchMFQiSsiDCh1NFrelt9/DtCg693aC9RD9xtdhqH/wVfj4urfuA6HcFjGteIC85VK18VkXFv/vlXBFl3y4Xn+hmsuriOKOXyFL0e47wtTd+WcpNczSEEcJ8t/BzlkKqxGjEgkFDikNfrlRWr/zBBpXft8ejNfb9k1EiXvfsOSFVEXcwraXn5iPfo8hy8XtCSBrvUvJKm9q17bRvuvGVzFvwuN/3tafnz9RfIWScPtleVGtUoDgVgxP0M1CEX+zTu+7FoAyAMIctYpM/XGire3HGDyA8z/DJ5qrq8bBOZONkaRKAWsAbCYKJBfXUHOwyXGCvzWbeOlrBTtKahl9RorkKRTqeqULRDY+r/Nt8v8xaKDtb8skaFKUyTprikmlq0HNHWJR110NLxCJcg01qiF49CxviyhrbdLjnZfp31S51aOJ+1EyJcsK87bhT5aKxffvrFL19PULFOB9Dnj3Rr3JYI78zhmztwwHot36Cup0AfRKLalvDnVvfL/HMK2z3rVHXL1Hhdb3/gl19miXHxvHK0W+/3kdirM7eRk2Md07Uyo3NMh2o1jvNrx+j17Se/fPKFX61nNHOcCtxDB+k00GUs6EL9rjTLYKFULc1jXs6VZv3KXOcPk7fEp+7DaL9bMxX6ZcnvIsuW+2XHTpFf1LD8l5naD+oe3LeXS4Ypj2S41palD0pzrz1sH9NRuE4P6i/SrLHIf1/3abp7kWdecMmYS9zSUu+jLOUjAGFI38VE/DmqfLXhryJJAMIQ+rc0520k98ttOZNAQolDcAt76sEbzcPG6Jselidf+UQe/dvVahpd3VgV2V2QjUilWmqqcATLIRRYHdkF8/ibXbDO1Xc9Ls2bNJCzThliLzaf2/dY2yqwkF/ikgAEhAa104R9GpfdF7bSaaluvemlRq1vO3cR6aTTihWa8lzdjRCPaMcOffu826VvLUUnDOys0qG9T3bus6479rIyfeqgqpsaQmLCpWzVapc+/Lpkue4baajnqnA0dz626NcBi1/fcvtNaupW6rIWpIGXaZdOXhkpsSEi7N6ffw3fvA2CkFtSqni1zy3xIhptOEHFunbtXPL5OI+xHnvkKZ9ajvlMqnEIdYleEI9l//4UY3GZ7c1R1pFtca0aVfQe7ZUD2d4iG27ZWmTMpZar5YpVIv96wicXnOeVhur2mYhl+07rmHanRPeYDsWuY2eRP2W5THy11Wtc8tU3frXeUssZjcHWs7tPWrfWgPkF9btQmymwrH5mmjlnD+dG7/wssMMyfFm5Fo3xqOWnX1ypOYL2Y8LxvnGTdb2F9Sbmp0zzy7Qf/dJXU6sP1gDe1fMfHcuwx8RatXHdaqW6125Uqz9cp6tE6TqdoZa8V6m4CbdAZN974lmfnKQZznCNZik7gVRVdGtlRO85quw14i8iRSBdhfoqqRpfbl9sxrS4ZrA4h0BCiUM2VqifrZo1MmntsaxBvdqyVlPc22X1uk36Rt8l9evW0mB4uUYtxd+zdD0U/B2/sQu2h5hGz70+Vu577HW5/47L7T/xkwRIgAQMAQwnIMRgskuujml3aZyK7SoU2YIRsgJFqsAI8oj2fjNhmwgcu2KFW5arWLRSJ+wT08+/GqM4Y1afWdMvNWuqOJ6R94nvGVZ2tJo6n5IAd4VoxBwqrs/a6MD4es2W891Ut/z0s9vEoFq42G3itvTqkdgZzeBygzhbEMJgJVfZpVEjDVR9Za68r8HBMfh7+TWPCe7euVPkzrHKblNx+9u/31Jf0tNj07b69fxy+WivQByaNl2vMSpGI+39/AUec/3o3s0nPbr5pX792NSvOG7lWY5rJgrE9eCij4LSWI85THAjRcDqH2e4ZZ5ywLmPLJZHH+WTAf19KngE/5LzoQjYmQ5rRNHiL0PvbZfpcfuNZjNDgocvxrll3Xq4R/oS4l4XiiuXkQAJkEBFCCTAMEBkz9798tSrn8q5pwyVFs0aym8Ll2va+l/kwpEjDJvjBveRZ177TC44c7hk1a8jb370jfTv3VlNgi2lsne39vLaB+OlU/uW8sfGrTJp2iy5/ZrzAlxTUzR17shjpUuHVnL5rf+nrgo15eYrzw78nTMkQAIkEIqAXjpMQOl69fDXggONUOtXdFmtTJHe+la0dy9r0P7HH/lWRZiHaIJMXohbpHJRkd1hSTV98w2RKDNIQAoISnnLnD7w2Zc3kK5RPfrMARE8jjvWJz17+E0AVGTSQjDUWbNdcooOQjCYTMRSGZnKSuIG155LL/Eaq5Y5Ojj/UK0Ejh6g1lsaVLms1iwl7SuWf0dQepRYW6a0bOGXli28JibPb/PcJlA+MjBCMJo2XaRJY79AAO/axVchtzOrtbH5H9aeKHVKcMuFOHnWmV4ZOMClbr1uWbrMZTIZ/qJxboYMtixU4M7MEprA3rw09tEUh7BnuDAi0UPTJn5j5YnrxCbNHDrqHJ/UrpWY1+bQxLmUBEiABEomkBDikEtfWc6cu1Te+0yjVOaVk47pJ1dedIr5NlJjBP08Z7Gcduk9JjZFs8YN5NmHb7FXlb/fMlqu/csT0v+Ua4zZ8In629OP09dCeQWZz1AQhPrxe6+VG/76tLEyOl/FJhYSIAEScCIBDIybNUWQar8MHWyJRRCH9uxx6QRR3frcbX/PW4asSAgyvGkTWlVUQMJS9eA1AlKwBVJ1HaSnajDQlBTLxQRv2cNNuKwW93fUHX/DOpmZ6g6XHzIOuy+xVKblUHBlYF2BLE8IHI5sR+tVkPuvBqzu09unfeCTaA+CgutSGfP2m3/0fSwLRNgzT/NJo4ZiLAR++NFt2EOww4AwEYrNOt0hbksQj5FNcbDm/Vi3Xt1ZNZvi/IVuFZ4hPrtMP7RXq0a4nbXVYPkYoMdL2ZFnOVSvbumOnawsv1w4ymsyu0381m2s2JAl68cZLhmuWS27dlH3tNCX0nhBEpV62tZwlSXid9MEElkNvPLeR25j9fXCSx45W8U9ZDlL1oLIGrBu3qlxtiBkIm5bpgpmieiCnqx9zHaTQFkJuDRTV8JcFZGaHhnI4BKGlPWFCwJT79N1GmXVLfwn833D5u0mgHVGnkVRyJUKLdywPe91XqHl/Bp/BOyYQ5t2MD94/PVe+BrnxxzKS/kTfvWk/StuBhiE2gJSQDjKE5KMqKRiUl6otkrjhAfWBg0soQuD/aYqeCGdPEqomEOPP5liXOxuudEbszfDiAdlXM3U7cSrIS5S9VUMrLoGqNsJLLwSoSxa7DJZ+jpq7Jnzzy0aF6iibQwXc6i4bSP1OmKM2AIh3P4gzLVoHt+POv9+IkUFXZHbb841bqHFtT+Wy9VL38Rcm/Ob28Rfg8shCsTDHup2hkyOdfMEF8Qc2qVxwpwYc+iRx1L0WbH8rBF3btJkt2aZtBShhioeQagMdjm2yCTm/4gfUppn4xdVOIeQeNUYb6WKuIf0Ee/Tzz3mWIVoN2yIT4ZovKhEFvDQZli27YAQlCcGYX6fXlMKXxkh5LZR9/gunXwmrpidz8eOObR1F5+jEu3MZcyhROvRirUnISyHbAQQdcIJO8hchqm40rgY0ai49bmcBEiABBKJAIYycNPBm9zGjdCywo+NVmvh4lJYQEL8mcOHXYIBIgaFeO0QbvKpYFLc3+3fe/FWc5dLM06KTpaLHGqAetbRQWazJvoQ20ozubXUAajGloClEWpsCwM1aoSuv64S9RLsavatupwgyxNiXsDlpJ2mwe6r1kR4Yx3PAxInuJUV7kiIQNdfkys//uQ2aawRrH3FSo+6QvnNABBiUTwWWPShOMVyyKpNwf8Rr6xLZx1UdvaacxZuZ7AogkgyXfvjx59EWrb0C2JxDepX8LdO+XZIx70QhmAFmaHWUeUpHTSNevv2XkH7p3xnuTC9+Y7HsDnpBK+5xpZnu4n2G7g4o1T2dbqqvjs+X4PXT51m9c9k7SOIVCPP8Bqr2ETjjPYgccUnY9U0qFCBtVAttc6trWFWcU/eq2IRYm4t+x2TR1LGaSxFvU916ezT0Br6Y73PspAACSQ2gYQShxK7q9g6EiABEnAGAVjtpFfzS8Ms1Ce6g20ISLBY2qDBX+G+AlctPMgjzsl2jQ0yd55VhypqmtNY453AFQSBwOGKBmudWBe4mo06x2sGyD9oXBa4nOEN7tJlHqml2XSQOadXT3U5i7FrVnk42a5OsXYrK1x3HJ/HHuMzsYd+VkEOwYIRSHn1Go9xs4SVAAQ6a2ha+NfO+56tggWOaQiO8RIwHtZ+AzX208ABYs7XmRp/a/4CtxmkrlrtkXH/80rnji7p1lUTiKhg5BSRFNcVFASjrsjxAddYuNQh9hKOwSnf67mvGc5WrEwxlirIbhZPrnaRPitw14AIhxKLax/6FtcBxMj6+FOPuSa/qG5mo8716X0tuvc00+hK/g9WQig4z04/RWMtaSY+THANx7EaXCBEL1piHa+rVVSCJdySpR75XAXTrmpNdOSRroSNoxfMgfMkkKwEPP/QkqyNj0S79x7UV9ssCUEAWemqV1NzcvZpQvRncCOQ6hxpOg+GSIkdvB7nnUcAD7N401u/nloJqdUHgj4POtonHfXtfEONMZNRw7JWgrXQrt0uIyKhFbU0bkL/I53zkA8BBe5XsBjCPGI8wLwfwathUQTrCliFQDAq9KzuvE7JqxHcyiDWdepoufxFuqJVq3jUJc8vh73l60eIg7AYOrKvT+AasXmLS13PXZpdygoejEFpPfUyd4owURw/xAfDMYIMg0f1Kx+L4rZdGcuRDbGDxh/qp/1QRy0U4OKCwSpSwc81Qa3dAstDDFRjbRm1Zo1LFmm2wRYt1AoqAlnvYM3YvJlfRTCfOfZwDP6+3CULNMMZMmnVrx8/53tpj5WM9FQp6dn4kPb31B/c5toOkSZWBUHHu6iAh2yHuAbjeIQljfXiI1a1ivx+YcGHFywnn+gz96Daep/BfTXUtQ9Wc0iigMDyfVTExD3p8GHrfrVxk2iiBcsaroEeu7EQ9iJPh1tMTXFrzCm3HMqJvHt4aejimsHiHAIUhyrYFyXdACu4ef68EglQHKpE2JW8K4pDlQw8yrvDAy0GVnjr27u7W4YOdEn3HrlGCIB5PKwrEPy5mwaCdVrBgzcGi/36+s1njrriQbDAoHGuxmpZqNYFPp/LvNV1elY41BcDqh5qIZHVIPKkKyoO2TVCwGq4m0GcgPgA1rAQWaABlOfNRwwtl4mF41TecPOYNcet1iywNHPeMW1zLukT5yUGnb1U4B12dKq4U3wmNhhcRxEr6md1uVy+wiVer8sM0GPRHxCGYGUG8bl1q8ixxkC8uwZEbtTQbzJl4ZxfuMiKzQSBMlHikOEYKI04BCEfLrYQYvrFWMRH3/To5jfuyBC7F6vVDKwi8TIC4l4ilB819h3Os6P6qUCr15HSFpyDiPOHlzL9+8BiWAOur7euoTNnuc11NEstiO0YgKXdLtdzFgGKQ87qj1jXhuJQBXuA4lAFATro5xSHHNQZEa4KxaEIA3XQ5qroGy+32sX79F9dHWRhQIcHfScKQ8HYIHDhIb2rxmiBWxnc4JAlaac+wGOADFcovM1GUHBYVbi0jcW96Q3ebmXO/6qDA9S3b2+/sQiJ9L4jJQ7Z9UJ8DWTvg0gEcXHrVlhwWdZbP+ngaYVacR065DLCIjLyOaUg7TasnZCNDRmXEqHUr61uoE280lf7ojXcynQQDks6WBQh3gkGs3C/RP949WV2ulp5VYabKEQ4iIe9elpCTqRZ11MLSJwvOP5gybFtm0vs1Oro31hbTkWivaURh7bkieENVFSG8BDrAhEIsaJgvYY4ZXBhhlVnOw3MXNZsmbFuS6j9T57iEbinHjPUL9XykjmEWi/csvRqLunZNUU6dDxszslNavm3Ua9Nv85U4Wm3qCWv39yjwm2Df3MmAYpDzuyXWNVK3+OwkAAJkAAJkAAJxIoA3G7sjDkYECPbE1xPIBJhsgssL+ppDKMGOsCsX18/zSTGyiiSb7gR5wkDCUyHsiGY2PNwCXJZy3UZBk8oTos5ZPMq7hMcj1R3ib69xfCdqW4S4A3rFUzjJ1gDHViPdFJXQKQqj2WxA38n4tt5HEFw/cMEl5clGrj9t/lWbCKIJ5imTbfcX3DMt1CrO1jeNW9mHfeR7pcdO6wtIuZQtArOVbiXdldXMwTqxoSA9YhDhiD1cNNs39ZyP41WHWK93UC8IbXwdFLprUI9Yg598JHHCETPv5Qi557lFcTFitcClzDE7YM4jjT1FS2wyj3pBCumGzJyzp3rltkqqs5Tlzxk5BysboKIOcZCAiQQnwQoDsVnv7HWJEACJEACCUYAg0bEJerYwSsHVXxZpkIR4rJsVesCuG/t0bezeFu7SeM+BEcqwe8Q+wFZf+C2hu+YMBgIzOctc3usQLtwXYNFRnaOFQMGWZqyVfjBZ44ug0BU2lI9vQwrl3ajlbAerLcwGG/X1mvaDIEIgVh/V8sVi7NLAwnrgEqtCRDsHC5BEPKqaTB2WHiYSefxJh6co1XsTGXVNYtgIhdYBnVVV9CuXbwm6yHcu5BlCRZ0CEIPaxNMv86yKMD6xhKKLMEI/VPRfoC7F0o0xSGr9laAcYjCEIoQsBpWS1awetQBLlfqOqsuPXDFgwstjkE7rbi9jXj9DGQqc+AxDdZXX5VrAlVDnH/jbU8gwL11dMQXdVjj4cqBANRqgBqxgusiglsPOtpvsvLN1zhacA2drWIRrDMRkD4RLOHKCgz3TtxbWEggXglQHIrXnmO9SYAESIAEEpYA3Jq6q3scJrtAyNmqIhGmLeoSZYtGu1U02rMXU2meSEteBw+2GISmaR2qplluFXBpg3sFvgfmzTJ/3FkO2TyDPxFbo7MGIO7cyWtEM1hFwZpjyTK3uvaJce/D91AFS8EkXUUyDIYg0AWXYKGtLPP2uoiDgpJMAy1Yd7VVlx5MKBAyYUUEoQjWXev0E2m3F2r2P0wo6ENY08GyAdkU8R0T+iPwmWoJqPnf9e9YT5cj/hes5NCXlWkNh/qeerJPhg31mXg3OM7QPrjqIDaP3T6clxCtmjS2xEqIGBDECh9vBobD/0MCARS03YkFVnoXXeA1ogdS3k+YZKW7P+M0r6Tp8RJPBVk9URCzLBqljopOZ53plcEDXfLtd2oFp4kKfvjRbdzNjurvkwFHWQkBorFvJ27z1Tc8coQG4EcihCqF7gVOrC/rRAKFCVAcKkyE30mABEiABEjAgQQwKEFwUEzBxavJfjDYwtt4DKIx+XQZpgLzWOa13iJ73PoWWS2LsM2A2AMhCIKPLkvmN5+wuLIsivxyqt/KMrVxoxWEFYFqDxx0Cax5DmgsqAMHVFDQT1h6HVTLq+15bknB/ROp+eoqPCVrseNFIWbU0UepZZuCQFBxiEVr14qs0c8d+t0W0oIt68rKrDKshkLVCdZ/sCKCuyOEQcQj+mODGKspWE4h9hQsm7bpYP83DaSOAkspCGKWZZFeH1QwaqBuUZp4yNElYDnkUHHIsFXEw4dZ6e4//dxjRLpNmzwyYrhmy1TXP6sHHI3ZVM5OYx/t4xpun6PO8cpGFXEhEiF2GNzOYE0EKyJYE0GUTeSC+IBr89yT4S6KdsOFOR4F3ETuJ7YtPAGKQ+H58K8kQAIkQAIk4GgCGAjCxD+zZkHRKHSlS7NO6F8m41KIZPU1zlN9jfNkSRJFKWAgD4sTWzRCjI/gEiy0lXcev8MbehaLAAbm9er6zdSrh7Vsvwp2EIwg4B1UAQ+WdugLTHCVzDHzmp0u77v5xDLzN12et360LCzK0nfmuNPBNlLdI6U4CkTgLSoQrVehaEOeaAR3U4hGmGbNsfYAqyvEzYFgZE1WrLLgY89aM3b/B2IOOdCtrDAVBKq++gqvvPeRBitXzu9rPCK4+sEqBjHJnD7wty2HypKlrDCDsnxvpGwuOt9rhNtvp1jxwyZ+6zbWRP2PVLFERaJEFboh4tpXaVyHvpmoMcXUimrg0Zb7qNOPlbL0M9dNXAIUhxK3b9kyEiABEiABEiCBKBPAoBtxhxCLyAnCQpSb69jNY8CZH//KHqKVvbq2O1/ZfxndX0AExsAbk6h1EcrhXDGWGnC5+0PdD2FptF2zHsKCKt+KyrIGxO+CBaNaKjZCZItFsd3KKtN9ryLtrKPufBCIEBfqe3UzA+9PPvPIOHW17dLZJ7004xqs2pxYcDygRNtyqHDbEQ/ssku8JnEBYmrBHRSfU39wG8tMBGSH+xXEzEQp9jk3QIXDNq01FpO2F8vGT7DEMVgS9YUlUQK1OVH6ju3IJ8DDM58F50iABEiABEiABEiABJKYgJMsbErqBgwy7aDc9roIKr8B1kUQjPQTohHiFyHANya7IK4OglwblzQVjmrVEsnIsAKsR9otDbLJQbXs2rPHZWJ4IdA+SoYG0Y+XAtdGuAj17OEzmblmz7VS3s/SbIezZlvWWT3VyqtHN83WpcHSnVJ2BMSh2NSodSu/tG5lWRIhFhEC/i9ZisljYtt16qiZ+zS2HjIWxtO5F4qmLQ41VaHQTnaARAfBIpFtSdRHXUgpEoWiyGWxJkBxKNY9wP2TAAmQAAmQAAmQAAmQQAQIIJi8NSDPF17gcgeRKCAYqWgE6x1k48JUuKSoEIL4MNaUH9zbXpZWpegyiCcaokuWVPXJ+k0I5K4ZFk0wd5G9Og8rp+CCvcaL5VBwvTGgR8r23r2suFBzfnPJXE3jjhhRE7/VeDuT3dJChQ5YxbRRYaSeuqWCTSwKXCkRuB39WTMz/3iIRV0gYl5wnte4fc5f6JZ5GjcLYgqym82ea7lGd1Nrou5dNW5Wg9jWtTx8UOOAOBQUF9AWiRCDCSIRBNv/faOWRNPdMmigT/rosZRI1lPlYcffOIsAxSFn9QdrQwIkQAIkQAIkQAIkQAIRIwCXu/bt/GayN4osfLZghJhFEHL2asZDxM/K1aD2uQi4rlPo4N5FBSV7uxodSWeLRsRGBsaaGhetpsZHw2ed2hIz0SS/rhWbg/AzYrjfBK6GyDbnN7csVauYVautCVuHFVZdXS+rgeikwofGksrKErXUir5bH6yGIFpEOo19RahBEETsof5HWjHCEFwd086dLpmmgsm06RozS7Pw9emFbJ2+uMkOt1NZI1EBMvDVyixKCOdfu3ZeWbbMEokg1H49Hu11m2DdXTRbJtwXWUgg1gQoDsW6B7h/EiABEiABEiABEiABEqhEAnYQ+06aeatwgThkgngjWHeOK2jeWp4dYhkCZsMtKLN6irhSck2AfEsIssSgRE7rjaxxlvjmFbj1QShauhTxZkSQLWzLFkwi84OiPMFaxIhl6oIGwSRdY5alq4hnTTqvbn+Yh7BXLV0zSZYj09eOvOyJdesW7mFnfK+rQeWPGeqXYUNF1mnGQVgTLVCrok3qdjjua7XEmuQWWBP11JhOhbN0OqMF+bVYr/G+UMLVE5IqLMrat7dEoslqSYTsbpPU2mzSZCvzYEMVDpH5DSIiAtIjEQGOLxYSqCwCFIcqizT3QwIkQAIkQAIkQAIkQAIOJwA3pBSIEzqFztJXVFCym9S4rkc2bFdVKUkL3PpgBdKlEyyorGx5yCpnJhWINqtQhAnuXrDssQWc0BZa+RDRJwHhyBaRihGU0lVMwrqxCkadX+vSzUE0sWNnnXi8z8Qk+mWmW1arBdavs9w6WcIJRCJYE9VQMc1pZf16y5ounDhk1zlYJFquMYnmLbAszqzjBGtZ28Ic+h0iGoQikzlTRSMcYxCM4K4Ii7yqVXWZnquJLMCCBUvlEKA4VDmcuRcSIAESIAESIAESIAESIIEkIoD05XaWuOBmIx4QAnRDJEJMqAMHLLckuCaZebj12fP6adbXdfeo619+CZ7PX1p4rrLS2Bfeb3m+Q/DorOJaZxXXtmocp9lz4HbmNuLaNxPVyuZbzXamLlq9NDA4PiMdPL08dcZvQsUbKmlb6D07JhGs9WAxtdUIiWLaDrFotwaTtwRFbC18f4NFVYhFKhpaopH1HUzdbr8JgI24YTgm7fhhVTR+WIYRG/1y2OsyApMdayw1b93wey2plfx7vBGgOBRvPcb6kgAJkAAJkAAJkAAJkAAJxC0BWHnUU4uQegGXr+KtsdBIBPRGxjcIR0ZsFtZJAAAes0lEQVRMMuJReEHJDgJe2WnsI9UpsJQ5fgTiOvkEAZ0R0wkxe+xsZ7AggiVRD812lpUVnl+k6hRqO7awA7dKCIHlKbAQgtVRYcsjiIIIdr51qxiBbNt2De6uy/y6m1wcExoj7NBBK1YY1sWxsV+PkaIl1LLgtVBvrUShgjbli0kaiD5PWML+s9WFEnWxrZggQoWaCv7db6yhsJ4Vn8kvjQcX2im/xpQAxaGY4ufOSYAESIAESIAESIAESIAESKB4AsiSlpoXzDt/rfBCBAbusD6qrkGS47lAXOhwhF8nK9sZLIlmz7ViOU3/yS3Tf7KEhhbNIbapJYzGcaqZYX1m6CdEJGwjUsWrVj779lsB3GH5tXiJ2wRxR5ygNHX5imSBGNO4kQoojbDV8P2NeiGg/MFDlliEeUxY7vNZGQMRSwzHRXBMMa9aDOUeVtHxoM9YqJl18uKKBa9bkuVS6dpdVKQ6juJQ6dBV0loUhyoJNHdDAiRAAiRAAiRAAiRAAiRAApVBABYfmSEyZ1XGvqO1DwTvHtDfp5Nm29O08HNUJFqk4sy+fSILF0F4KCo+uHURfgehCMJRdY3JBDawXoFwAgur3FwVSMynZZGDeWu5/R0CiuXeh9+EKoWtfkKtE81laA/aWb16KBEp1DKrNulpHrUIcsuufUUbBguhgECkApItKsGiCEIYxCufBqMHE0ywogr+bi9HwHpr3mWtp3yNS+X+ov0VTUbcdskEKA6VzIhrkAAJkAAJkAAJkAAJkAAJkAAJOISAHcvplJN8sl3drdatF9m124rjhNhMEB/26ud+WPmoeLR3nwoRG1H5igkSEGEQ8Nu2TrI/kbEu0QpEIDs+UUmWS6Vre+IxKl2742ctikPx01esKQmQAAmQAAmQAAmQAAmQAAmQQBABZPSqa+I3FRUfYMkS7AZ2QGP02FZCEHrgspeSorFwzCfmrclabn/Xv6uVDCxl8BsWEkhUAhSHErVn2S4SIAESIAESIAESIAESIAESSGICiDdUMy8OkYWhqICUxHjYdBIoQCCC4bkKbJdfSIAESIAESIAESIAESIAESIAESIAESIAE4oAAxaE46CRWkQRIgARIgARIgARIgARIgARIgARIgASiRYDiULTIcrskQAIkQAIkQAIkQAIkQAIkQAIkQAIkEAcEKA7FQSexiiRAAiRAAiRAAiRAAiRAAiRAAiRAAiQQLQIUh6JFltslARIgARIgARIgARIgARIgARIgARIggTggQHEoDjqJVSQBEiABEiABEiABEiABEiABEiABEiCBaBGgOBQtstwuCZAACZAACZAACZAACZAACZAACZAACcQBAYpDcdBJrCIJkAAJkAAJkAAJkAAJkAAJkAAJkAAJRIsAxaFokeV2SYAESIAESIAESIAESIAESIAESIAESCAOCFAcioNOYhVJgARIgARIgARIgARIgARIgARIgARIIFoEKA5Fiyy3SwIkQAIkQAIkQAIkQAIkQAIkQAIkQAJxQIDiUBx0EqtIAiRAAiRAAiRAAiRAAiRAAiRAAiRAAtEiQHEoWmS5XRIgARIgARIgARIgARIgARIgARIgARKIAwIuv5Y4qCerSAIkQAIkQAIkQAIkQAIkQAIkQAIkQAIkEAUCtByKAlRukgRIgARIgARIgARIgARIgARIgARIgATihQDFoXjpKdaTBEiABEiABEiABEiABEiABEiABEiABKJAgOJQFKByk4lBYN/+g7Jl267EaEwStMLr9UpxXrIl9eXmbTvlwMFDSUApPpt4+HBuuSqOY+KPTdvE6/OV6/f8UfQIoG82bN4u+w8Uf96FOy/Zt9Hrm4pu+eChbFm3YYv4fOWLWlDS9bqi9ePvy0/gUHaOrFm/Wbbt2B1yIyWdl+HO6ZAb5MJKI7Brzz5ZtXaj4PwrT2HfloeaM34Tru9KOqed0QLWIpIEUiK5MW6LBOKFwIDTrpPde/YXqO4d14ySS887QbJzDsvdD78k33z3q7hcIi2aZMmzD98iLZpmFVifX5xDAH15+mX3yD9uu1SGDugRqFhJfblyzQa57u4nZf3GLeY3Jw3vLw/eOUZSU3lpDECM8czk6bPl1n88J3MnvlygJvc9/oZ8+MWUAsu6dmwt7z//d7Psk6+myj+feltyDh+WKlVS5d5bL5XTjhtQYH1+iQ2Btz6eIP956WPBQBPn2pE9Osrfb71EmjaqbypU0nnJvo1Nv5Vmr3+68zGZ/usCI9TXqZUhJwzrJ/fcdFHgp7z3BlDE3cwdD7wg46f8HBD9undqI888dJPUqV3TtCXceVnSOR13MBKowpu27JBLbvyneZGCZqWkeOTCkSPkzmtHmVbOmL1Ixtz6SJEWT/zgMWmcVVfYt0XQOHLB4t/XyMU3/FOuuPBkufri00wdS+q7cOe0IxvJSkWGAAJSs5BAshHof8q1/tfe/59/+ao/AtPO3XsNhnc/neQ/+rTr/XrR9OsbFP+Vt//bf8XtjyYborhp7+33P+/vOeIKf6cho/2Tf5hdoN4l9eXoGx/2X/uXJ/z7Dxz0L1u5zo/j4qNx3xXYBr/EhsD2Hbv9x4263fRr92PHFKnEvf9+zX/FbY8Ezl+cy+s3bjXrbdm209912GV+FY/8anXkf/uTif5uwy/379i1p8h2uKDyCegDp3/i9zPN9fX3Vev9J190l1+FvEBFwp2X7NsAJkfOPPrc+/6FS1f7Dx7M9n/z3S/m/J01b2mgrrz3BlDE3cyTL3/sn7Pgd39OzmHzfDTw9Ov9T738iWlHSedluHM67kAkWIVx33zqlU/M/TPX6/V/9OV35rxdunytaemPMxeY77hWBz8z5+bmmr+zb51/QGzeutM/7Kyb/XiWev6NzwMVDtd3JZ3TgY1wJuEI0K0sMhobtxKHBBo2qCNtWjYOTLVq1jCtmDB1phw/tK+0at5IqqdXldHnHiczZi2UveU0tY1DNHFV5buuO1++fPNhqZpWpUi9w/WlioEyc95SGX3O8ZJeraq0a9VUjh3US3TQWmQ7XFD5BGplZsirT9wlD941ptid16ieHjh/cS43aVjPrDt5+hzJrFldzjl1qHkLev4Zw6Va1TSZMn1usdviHyqPwMiTBsmxg3ub62vblk1kYL9uMv2X+aYCJZ2X7NvK66fy7On2a86TTu1bSNWqVeS4IX2lQb1a2rcLCmyK994COOLmy41jzpIendsaa78mauXndrslM9N6bgp3XpZ0TscNgAStKO6bN1w+0tw/PdqnTRrV0751SUaN9AItbtMi/3kZ91uPxyPs2wKIHPnl0KEctZB/Qk44pp90bt8yUMeS+i7cOR3YCGcSkgB9JxKyW9mo0hB465MJMlGFoGaNG8jZpwwJuDRs3rpDhh7VPbCJ5upWhtgJ27bvkozq1QLLOeMMAvXqZFoVURfAwiVcX+ZoHBuV+wu4C7Zo2lDmL15VeDP8HgMCeDjFQ2vd2nn9G6IOvy1aIbfd95xA2B0+qLcM6NPZrIV+x3ltF2yrWeP6guUsziKAa+uMWYvkiLbNTcUQ5y3cecm+dVb/havNitUbTNy+Du2svrXX5b3XJhF/n3DVfuHNL4yYi4HmmScMNI0Id16WdE7HH4XErPGS5WvlA3XVnvbzPLnywlOkkbqMBRe10pbUlBSBO+GZKvDjhRz7NpiQ8+Zxf73zwRdUpK8tt199nrqVPRSoZEl9F+6cDmyEMwlJgJZDCdmtbFRJBE4+tr/079nJDD4hEI26+n6B3zXK3n0H9K1nWmATaVUsi5Q9upwlvgiE68s9e62YU2lBFkdpGptm7372czz0cpcOreQkfRPWsllDDWy8Ta68/VH5/Jvppup79h6Q4H7FQsQdovWf83r2kefek3Ua8+va0Wfk9V3485J967w+DFUjXHtv+cczxtLkmIG9Aqvw3htAEZczCE67YvUfJoEDAhjbsRvDnZe818ZHV+/YtVc263Owug0K5u2A8ngBB+vb1mo5lJaWKk+89JGJA4hWsW+d3bdP/PdDvb9ulUf/drWxBguubUl9F+6cDt4O5xOPAC2HEq9P2aJSEPjrTRcH1rrqolNl+Lm3yvczfpPzThsmNTOqm6DU9grZOTlmtmYhE1v77/x0LoFwfQnLIRS8CbUL5tnPNg1nf5598pACFbz1H8/K2PE/yOnHH63ncLoJRB28QnY2+zaYhxPmX3nva3n/88ny1AM3GvdA1AnnLEpx5yX71uBx9H/IVnbDPU+ZweXTD94ocFWxC++9Non4/IQL9lPap7DuG33Tw/LkK5+YgWe487Kkczo+SSRerWF5iwkWIyPOu10GHtlVXe17G5f7v96c/8w8oE8XFYeeFYiD7FtnHwfvjv1W+nbvII8+/4Gp6FrNIqmxOdUCzGPcubGQ91pn92Esapd/x47F3rlPEnAAgRrqKlZdH3gO6QMtCswv12qqVrusXrfJKO7169ayF/EzTgiE60vEwnBpOrrCfY3fsMQfgSztN/jWo2TVr1OgX/EGdL0+FLFvndOvGgBVNDCmPKeZIAf37xaoWEnnJfs2gMqRMxgwIrMRLDDffOruQCarUJXlvTcUlfhYhntnq2aNZKu6gaKEOy9LOqfjo8XJU0v0ZXq1tEDfFm457rUouN+ybwvTcdb3P+nLb1hZ19WMgpjgFpiusVQRK6ykvgt3TjurlaxNpAlQHIo0UW7P8QTmLV4hr38wXjZu3m5ubi+9M0627tgl/Xp1MnU/bnAf+d/kn016zv0HDsmbH30j/Xt3FjzIsjiPACyAjCjgt96A2AIBahquL2trwOPe3drLa3osoJ+XrVgnk6bNkhFD+jivkUlYI7yZRl/CxB3FzOdZe+E70tQvWrbGvPWaNW+ZfD5heiDm0DFH9zTuDoifoNnK5J1PJ8pBTZs+7Oge+ClLjAmg715+92u597bRJq7FKhXgMSG1fUnnJfs2xp0XZvea3VMuuPYBY1Fw3+2XyW513UW/rlNhFoX33jDwHP4nuKA8+ORb5j4JS4Nf5iwWzUZn7qGoerjzsqRz2uFNT/jqTdEEDu98OslYDB04eEiee32s7NNnop5d25m2v/vZJE3mMMeEXNi8bac889pnKgw2FASWZ986+/CAZ8T1l50ZmBppn/XXsQ4sr0vqu3DntLNbzdpVlIBLH8B1SMVCAslDAEFsr/vLf0yWBbQaZtLIsAKXMhQ8+Nz14ItGKNCXYyaw7bP6dhs3QxbnEbjo+odE0+sWqNi0sU9LnVoZJfYlAqZqKnsTswZXwhM1hs0//3yFycZSYIP8UukEECxx2Nk3F9gvzKNff/LPZtnZV94ri39fY+bxFvvEYUfKA3eOMVmSsFDT8RoBSVPzmrdlf791tJyRFzzV/Ij/xYzAqGvu18DvK4vs//X//Fn69uigMU3Cn5fs2yLoHLFgg75wGXHebUXqgmsxrsm89xZBEzcLEK/tYr3XajrzQJ0R8+0BzSZpZwoNd16WdE4HNsqZSifw/U9z5S8PvxSIH4Usvbdp8GL7mRhi0Ytvfym5uV5TN8QeQgybDnlJBNi3ld5l5d7hhdc9KIM0O+jVl5xmtlFS34U7p8tdCf7Q8QQoDjm+i1jBaBCAmwmshbL1TTUyIiElZ+GCgJp4E1o4Y0Ph9fjd+QRK6ksMapC2ldnonN+XwTXE2+ztO/eoS0NtI/IG/w3zeJhFsOrGWfVMSvvCf+d3ZxMId16yb53dd8XVjvfe4sjEx3KIRMjcChddiAiFS0nnZbhzuvC2+L3yCMBOYOv23Wq9mR3ymRgvTRGLqJomaykuxAL7tvL6K9J7Ctd3JZ3Tka4Ltxd7AhSHYt8HrAEJkAAJkAAJkAAJkAAJkAAJkAAJkAAJxIwAYw7FDD13TAIkQAIkQAIkQAIkQAIkQAIkQAIkQAKxJ0BxKPZ9wBqQAAmQAAmQAAmQAAmQAAmQAAmQAAmQQMwIUByKGXrumARIgARIgARIgARIgARIgARIgARIgARiT4DiUOz7gDUgARIgARIgARIgARIgARIgARIgARIggZgRoDgUM/TcMQmQAAmQAAmQAAmQAAmQAAmQAAmQAAnEngDFodj3AWtAAiRAAiRAAiRAAiRAAiRAAiRAAiRAAjEjQHEoZui5YxIgARIgARIgARIgARIgARIgARIgARKIPQGKQ7HvA9aABEiABEiABEiABEiABEiABEiABEiABGJGgOJQzNBzxyRAAiRAAiRAAiRAAiRAAiRAAiRAAiQQewIUh2LfB6wBCZAACZAACZAACZAACZAACZAACZAACcSMAMWhmKHnjkmABEiABEiABEiABEiABEiABEiABEgg9gQoDsW+D1gDEiABEiABEiABEiABEiABEiABEiABEogZAYpDMUPPHZMACZAACZAACZAACZAACZAACZAACZBA7AlQHIp9H7AGJEACJEACJEACJEACJEACJEACJEACJBAzAhSHYoaeOyYBEiABEiABEiABEiABEiABEiABEiCB2BOgOBT7PmANSIAESIAESIAESIAESIAESIAESIAESCBmBCgOxQw9d0wCJEACJEACJEACJEACJEACJEACJEACsSdAcSj2fcAakAAJkAAJkAAJkAAJkAAJkAAJkAAJkEDMCFAcihl67pgESIAESIAESIAESIAESIAESIAESIAEYk+A4lDs+4A1IAESIAESIAESIAESIAESIAESIAESIIGYEaA4FDP03DEJkAAJkAAJkAAJkAAJkAAJkAAJkAAJxJ4AxaHY9wFrQAIkQAIkQAIkQAIkQAIkQAIkQAIkQAIxI0BxKGbouWMSIAESIAESIAESIAESIAESIAESIAESiD0BikOx7wPWgARIgARIgARIgARIgARIgARIgARIgARiRoDiUMzQc8ckQAIkQAIkQAIkQAIkQAIkQAIkQAIkEHsCFIdi3wesAQmQAAmQAAmQAAmQAAmQAAmQAAmQAAnEjADFoZih545JgARIgARIgAQqSmDs+B/kgmsfKNNm5i5cLh98MUVyc71l+h1XJgESIAESIAESIIFEJUBxKFF7lu0iARIgARIggRgQ2LRlh3QZdplMmjqrTHsv7++27dgtC5etLtO+Jk6dKfc//oYczM4xv4O4dMcDL5RpG1yZBEiABEiABEiABBKJAMWhROpNtoUESIAESIAEYkzA5/eLH5P+K0sp7+/Ksg973esvO1OmfvaUZFSvZhZ5fT5TZ/vv/CQBEiABEiABEiCBZCPg0ge4sj29JRshtpcESIAESIAESKDUBM6+8l5Z/Psaad4kSzJrVpfUlBR56+m7JedwrvznpY9l4ve/ys7d+6RD2+Zyx7WjpHunNmbbxf3uhbe+kC++mS7bd+4x6x3RppncMGak9O3ewXx/+d2v5OlXP5XfJr1S6jp+rtv76Mvv5O1n7pGnX/lUXv9ovFRJTZUWTbPMNu64ZpT07tZeYJX0f8+8K7/MXSIHD2VLt45t5C83XChtWjY269310IvSsmlDade6qYyb+KNs1fWfeegmWb76D3n21bGybNU6SfF4pF2rpnLN6NOlT/cjSl1HrkgCJEACJEACJEAClUkgpTJ3xn2RAAmQAAmQAAkkNoEh/bsbcQiiDwQgt9tlGnzvo6/K15N/lhOH9ZOO7ZqbmD+X3PhP+fy1h6Rls4ZS3O/27jsgQ47qIRCFcr1eeX/sZLnuL/+Rbz98XDJqpJcL5tbtu2T+kpXmt906t5HM8TWklgpZJww90ixrUK+WZOcclguve1BSUjxy+agTjXj0zmeT5Oq7HpNxb/1L0qqkyrKV6+Wb7341AlDPLm3VEildRay9cs1dT8gRbZvJn6+/UPbvPygT1I3t5zmLKQ6Vq7f4IxIgARIgARIggcogQHGoMihzHyRAAiRAAiSQJATOOmWIwNpn+KBeMmJwH9PqjZu3y5cTf5Lzzxgu99x0kVl26ogBMnjkTfLa+/+T++64TEL9DivCigfFq8LQNrUeSlVLnLv/9bIRZmDdU9ECUap+3Uxp1riBXHreCYHNvTf2W/lj0zYjXtmWQs2aNJA/3fmYzJ6/TI7q3dms265VE3n+X7dKvTqZ5vvM35YaK6PzTjtGTjtugFl2/pnDzbLAxjlDAiRAAiRAAiRAAg4jQHHIYR3C6pAACZAACZBAohFYsWaDienTv3enQNPq1K5p3LF+X7U+sCzUzIIlq+TR598XZBgLzi52KDs71OoRW7Zk+Vqzrdvuey6wzdzcXDO/YdP2wDK4jNnCEBZ2U4sptO2vKmB9/e0M4zYHIaxp4/qB33CGBEiABEiABEiABJxGgOKQ03qE9SEBEiABEiCBBCOQc/iwaVH19KoFWpZeNU0Oayyi4srO3Xvl4hseMjF7nrz/BiMm7dm7XxCfKNrlkGYyq51ZQ66//Mwiu+rYrkWRZfaCKqkp8sXrD8nrH4yXmfOWyotvfynPv/mFPPq3q+X4oX3t1fhJAiRAAiRAAiRAAo4iQHHIUd3BypAACZAACZBAfBOoqrF4ULKzLUEI8y2aNMSHzJi1SPr3sqyHDhw8JAuWrpJjB/U2fwv1uzkLfjeBrBG4um8PKwB1dl76efOjCP1XLS1NIAYFl1bNG8n/Jv8indq3lMZZdYP/FDazGTKf1c7MkFuuOsf8ZseuvXL+tffLJ19NpThUgCK/kAAJkAAJkAAJOIkAxSEn9QbrQgIkQAIkQAJxTgAuVe01e9fY8T9I6xaNTcavwf27mWDMH4/73rhcISD1Gx9+Y9zERp1+jGlxqN8hOxgCQn/wxRQNbO2WTVt2yMvvjos4Ibi7vf7hePlx5kITaLpJw3oy8sTB8rrGQ7r2z0/ILX86R7Bs+ao/TF2uueQ0ObJnx5D1+HbaLHn/88ky+pzjNatZE1m9bpNhMKhft5DrcyEJkAAJkAAJkAAJOIEAxSEn9ALrQAIkQAIkQAIJRGDM+SfLky9/LOdcda8RW2ZPeEn+dfdVcueDL5rU8Ghq1apV5K83XxywCMKyUL9DCniINP/TTGdV06rIsKN7mmDULrGyoLlcOqdTWUrh35w0vJ9M/3WBXHXHv41V0HMP32wypP3337fLA0+8aQQie/udj2glWfXrmK9mr4X23bRRA9m8dadcqxnVUOrUypDjNDD3zVecbb7zPxIgARIgARIgARJwIgGXX4sTK8Y6kQAJkAAJkAAJxC8BPF5sVEsfiCMQdeyyQzOO7dqzT5o3yTJWQfZy+zPU7+DytW7DFmnaqL5U0zhF0SrbtW4ej1vT2tcosIv9Bw7Jlu27JEtT3KdXKxg3qcCKQV8QG2nnbrSzQZnFq6DNcJYESIAESIAESIAEKoUAxaFKwcydkAAJkAAJkAAJRJvAVXc8JvOXrAy7mwfvGiPDB/YKuw7/SAIkQAIkQAIkQALJRoDiULL1ONtLAiRAAiRAAglKABZGPg0IHa6kqRWTR+MXsZAACZAACZAACZAACeQToDiUz4JzJEACJEACJEACJEACJEACJEACJEACJJB0BPjqLOm6nA0mARIgARIgARIgARIgARIgARIgARIggXwCFIfyWXCOBEiABEiABEiABEiABEiABEiABEiABJKOAMWhpOtyNpgESIAESIAESIAESIAESIAESIAESIAE8glQHMpnwTkSIAESIAESIAESIAESIAESIAESIAESSDoCFIeSrsvZYBIgARIgARIgARIgARIgARIgARIgARLIJ0BxKJ8F50iABEiABEiABEiABEiABEiABEiABEgg6QhQHEq6LmeDSYAESIAESIAESIAESIAESIAESIAESCCfAMWhfBacIwESIAESIAESIAESIAESIAESIAESIIGkI0BxKOm6nA0mARIgARIgARIgARIgARIgARIgARIggXwCFIfyWXCOBEiABEiABEiABEiABEiABEiABEiABJKOAMWhpOtyNpgESIAESIAESIAESIAESIAESIAESIAE8glQHMpnwTkSIAESIAESIAESIAESIAESIAESIAESSDoCFIeSrsvZYBIgARIgARIgARIgARIgARIgARIgARLIJ0BxKJ8F50iABEiABEiABEiABEiABEiABEiABEgg6QhQHEq6LmeDSYAESIAESIAESIAESIAESIAESIAESCCfAMWhfBacIwESIAESIAESIAESIAESIAESIAESIIGkI0BxKOm6nA0mARIgARIgARIgARIgARIgARIgARIggXwCFIfyWXCOBEiABEiABEiABEiABEiABEiABEiABJKOAMWhpOtyNpgESIAESIAESIAESIAESIAESIAESIAE8glQHMpnwTkSIAESIAESIAESIAESIAESIAESIAESSDoCFIeSrsvZYBIgARIgARIgARIgARIgARIgARIgARLIJ0BxKJ8F50iABEiABEiABEiABEiABEiABEiABEgg6QhQHEq6LmeDSYAESIAESIAESIAESIAESIAESIAESCCfAMWhfBacIwESIAESIAESIAESIAESIAESIAESIIGkI/D/Td1mtb8TmRUAAAAASUVORK5CYII=\",\n      \"text/html\": [\n       \"<div>\\n\",\n       \"        \\n\",\n       \"        \\n\",\n       \"            <div id=\\\"f4a60010-d2f6-4049-b731-a1472cb98e2e\\\" class=\\\"plotly-graph-div\\\" style=\\\"height:600px; width:100%;\\\"></div>\\n\",\n       \"            <script type=\\\"text/javascript\\\">\\n\",\n       \"                require([\\\"plotly\\\"], function(Plotly) {\\n\",\n       \"                    window.PLOTLYENV=window.PLOTLYENV || {};\\n\",\n       \"                    \\n\",\n       \"                if (document.getElementById(\\\"f4a60010-d2f6-4049-b731-a1472cb98e2e\\\")) {\\n\",\n       \"                    Plotly.newPlot(\\n\",\n       \"                        'f4a60010-d2f6-4049-b731-a1472cb98e2e',\\n\",\n       \"                        [{\\\"hoverlabel\\\": {\\\"namelength\\\": 0}, \\\"hovertemplate\\\": \\\"total_iters=%{x}<br>val_mse=%{y}\\\", \\\"legendgroup\\\": \\\"\\\", \\\"line\\\": {\\\"color\\\": \\\"#636efa\\\", \\\"dash\\\": \\\"solid\\\"}, \\\"mode\\\": \\\"lines\\\", \\\"name\\\": \\\"\\\", \\\"showlegend\\\": false, \\\"type\\\": \\\"scatter\\\", \\\"x\\\": [1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27, 28, 29, 30, 31, 32, 33, 34, 35, 36, 37, 38, 39, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49, 50, 51, 52, 53, 54, 55, 56, 57, 58, 59, 60, 61, 62, 63, 64, 65, 66, 67, 68, 69, 70, 71, 72, 73, 74, 75, 76, 77, 78, 79, 80, 81, 82, 83, 84, 85, 86, 87, 88, 89, 90, 91, 92, 93, 94, 95, 96, 97, 98, 99, 100, 101, 102, 103, 104, 105, 106, 107, 108, 109, 110, 111, 112, 113, 114, 115, 116, 117, 118, 119, 120, 121, 122, 123, 124, 125, 126, 127, 128, 129, 130, 131, 132, 133, 134, 135, 136, 137, 138, 139, 140, 141, 142, 143, 144, 145, 146, 147, 148, 149, 150, 151, 152, 153, 154, 155, 156, 157, 158, 159, 160, 161, 162, 163, 164, 165, 166, 167, 168, 169, 170, 171, 172, 173, 174, 175, 176, 177, 178, 179, 180, 181, 182, 183, 184, 185, 186, 187, 188, 189, 190, 191, 192, 193, 194, 195, 196, 197, 198, 199, 200, 201, 202, 203, 204, 205, 206, 207, 208, 209, 210, 211, 212, 213, 214, 215, 216, 217, 218, 219, 220, 221, 222, 223, 224, 225, 226, 227, 228, 229, 230, 231, 232, 233, 234, 235, 236, 237, 238, 239, 240, 241, 242, 243, 244, 245, 246, 247, 248, 249, 250, 251, 252, 253, 254, 255, 256, 257, 258, 259, 260, 261, 262, 263, 264, 265, 266, 267, 268, 269, 270, 271, 272, 273, 274, 275, 276, 277, 278, 279, 280, 281, 282, 283, 284, 285, 286, 287, 288, 289, 290, 291, 292, 293, 294, 295, 296, 297, 298, 299, 300, 301, 302, 303, 304, 305, 306, 307, 308, 309, 310, 311, 312, 313, 314, 315, 316, 317, 318, 319, 320, 321, 322, 323, 324, 325, 326, 327, 328, 329, 330, 331, 332, 333, 334, 335, 336, 337, 338, 339, 340, 341, 342, 343, 344, 345, 346, 347, 348, 349, 350, 351, 352, 353, 354, 355, 356, 357, 358, 359, 360, 361, 362, 363, 364, 365, 366, 367, 368, 369, 370, 371, 372, 373, 374, 375, 376, 377, 378, 379, 380, 381, 382, 383, 384, 385, 386, 387, 388, 389, 390, 391, 392, 393, 394, 395, 396, 397, 398, 399, 400, 401, 402, 403, 404, 405, 406, 407, 408, 409, 410, 411, 412, 413], \\\"xaxis\\\": \\\"x\\\", \\\"y\\\": [552324.375, 552043.5, 551760.0625, 551475.25, 551189.0625, 550901.0625, 550610.5625, 550316.75, 550018.9375, 549716.625, 549408.625, 549094.4375, 548773.0625, 548443.9375, 548105.9375, 547758.4375, 547400.1875, 547030.125, 546647.375, 546250.875, 545839.25, 545411.125, 544965.0625, 544499.375, 544012.6875, 543503.3125, 542968.875, 542407.125, 541815.8125, 541192.6875, 540534.5, 539838.375, 539101.0625, 538319.5, 537489.125, 536607.25, 535669.75, 534685.0625, 536554.0, 535644.25, 534668.375, 533623.5, 532504.25, 531304.9375, 530021.4375, 528651.375, 527187.5625, 525628.875, 523965.75, 522197.6875, 520318.09375, 518324.03125, 516208.4375, 513970.0625, 511603.53125, 509109.40625, 506483.0, 503724.21875, 500826.84375, 497790.9375, 494615.3125, 491298.5, 487838.375, 484237.125, 480501.0625, 476622.3125, 472603.875, 468445.0625, 464152.875, 459737.28125, 455190.375, 450523.1875, 445736.4375, 440843.625, 435848.875, 430782.03125, 448254.96875, 443690.84375, 438981.6875, 434143.65625, 429186.9375, 424118.96875, 418951.90625, 413699.4375, 408358.53125, 402943.0625, 397470.0625, 391965.0625, 386444.03125, 380912.71875, 375383.75, 369885.71875, 364436.90625, 359040.59375, 353743.75, 348549.96875, 343479.6875, 338573.0625, 333835.8125, 329310.09375, 325013.03125, 320978.375, 317247.65625, 313966.0625, 310919.0, 308172.125, 305762.53125, 303708.4375, 301985.40625, 300636.21875, 299654.375, 299108.4375, 298808.09375, 298638.9375, 305774.78125, 304917.15625, 303911.3125, 303143.96875, 302648.3125, 302002.8125, 301263.9375, 300493.4375, 299766.96875, 298952.75, 298135.8125, 297591.875, 297237.0, 296976.90625, 296651.90625, 296376.90625, 295983.25, 295557.75, 295263.78125, 294972.78125, 294788.59375, 294753.21875, 294645.625, 294560.71875, 294596.0, 294669.46875, 294807.65625, 294859.75, 294799.75, 294610.5625, 294589.9375, 294409.21875, 294051.96875, 293541.75, 293165.5, 292693.4375, 292110.84375, 291450.0625, 316943.9375, 315374.25, 314411.0625, 313162.84375, 311659.0625, 309956.0625, 308097.03125, 306124.25, 304079.65625, 301990.25, 300500.78125, 298946.03125, 297336.25, 295765.34375, 294674.40625, 293528.25, 292360.90625, 291232.8125, 290472.8125, 289652.125, 288825.0, 288306.875, 287774.0, 287402.78125, 287257.9375, 287013.34375, 286840.25, 286756.65625, 286833.75, 286845.28125, 286884.375, 286986.75, 287032.75, 287105.5625, 287234.15625, 287471.0, 287615.34375, 287857.5625, 316662.15625, 316853.03125, 316611.28125, 315955.34375, 314957.0, 313680.3125, 312142.96875, 310487.8125, 308677.96875, 306720.65625, 304815.21875, 302829.4375, 300815.34375, 298811.46875, 296861.71875, 294990.40625, 293692.9375, 292381.6875, 291332.3125, 290372.6875, 289416.3125, 288523.96875, 287715.1875, 287167.40625, 286701.21875, 286332.6875, 286184.875, 286085.28125, 285978.4375, 285975.125, 286006.09375, 286103.75, 286114.40625, 286067.625, 286129.46875, 286123.25, 286109.4375, 286025.71875, 315658.25, 315850.71875, 315605.5625, 314999.5625, 314055.3125, 312837.125, 311364.71875, 309716.0625, 307922.25, 305976.8125, 304133.9375, 302602.625, 301043.46875, 299479.96875, 298343.78125, 297585.5625, 296664.46875, 295632.375, 294841.46875, 293929.21875, 292965.625, 291933.5, 290912.4375, 290102.9375, 289462.78125, 288807.625, 288146.3125, 287490.625, 286864.71875, 286374.875, 286043.8125, 285850.09375, 285694.28125, 285601.5, 285549.25, 285477.25, 285362.6875, 285248.09375, 301479.6875, 301012.65625, 300453.0, 299592.96875, 298673.4375, 297578.8125, 296351.5625, 295021.09375, 293593.625, 292076.25, 290543.90625, 289318.59375, 288179.0625, 287406.09375, 286884.53125, 286564.46875, 286139.59375, 285632.03125, 285007.4375, 284259.5625, 283550.09375, 283040.34375, 282567.1875, 282109.65625, 281800.25, 281535.0625, 281300.25, 281097.6875, 280916.875, 280723.5, 280648.0, 280631.625, 280629.71875, 280656.75, 280742.875, 280932.84375, 281243.90625, 281710.0625, 307418.3125, 308424.9375, 308936.9375, 308971.875, 308611.15625, 307846.28125, 306743.40625, 305348.59375, 303709.875, 301924.0, 299969.9375, 298035.125, 296025.5625, 294013.28125, 292082.53125, 290156.6875, 288240.375, 286419.75, 285132.03125, 283898.5625, 282745.75, 281968.65625, 281202.375, 280488.53125, 279884.8125, 279521.34375, 279244.71875, 278993.15625, 278831.8125, 278620.03125, 278408.03125, 278218.375, 278020.15625, 277840.90625, 277660.8125, 277504.1875, 277320.875, 277151.625, 293606.625, 294075.40625, 294399.96875, 294553.9375, 294324.875, 293761.75, 292933.96875, 291910.09375, 290692.09375, 289343.375, 287891.625, 286917.46875, 285785.0, 284547.125, 283434.1875, 282724.09375, 281904.3125, 281004.03125, 280021.28125, 279027.96875, 278019.0625, 277063.46875, 276167.625, 275419.15625, 274843.75, 274434.4375, 274107.90625, 273946.59375, 273879.625, 273802.6875, 273757.6875, 273824.53125, 273884.875, 274005.71875, 274191.875, 274294.96875, 274481.28125, 274786.09375, 285838.875, 284552.3125, 283209.8125, 282158.15625, 281038.46875, 279877.96875, 279090.03125, 278531.625, 278200.03125, 277744.9375, 277533.0625, 277515.34375, 277536.53125, 277398.8125, 277165.3125, 276900.3125, 276867.125, 276674.03125, 276434.59375, 276338.25, 276123.75, 276036.03125, 276092.34375, 275995.8125, 276006.5, 276129.3125, 276156.21875, 276121.9375, 276203.3125, 276181.96875, 276031.3125, 275812.6875, 275525.75], \\\"yaxis\\\": \\\"y\\\"}],\\n\",\n       \"                        {\\\"height\\\": 600, \\\"legend\\\": {\\\"tracegroupgap\\\": 0}, \\\"margin\\\": {\\\"t\\\": 60}, \\\"template\\\": {\\\"data\\\": {\\\"bar\\\": [{\\\"error_x\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}, \\\"error_y\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}, \\\"marker\\\": {\\\"line\\\": {\\\"color\\\": \\\"#E5ECF6\\\", \\\"width\\\": 0.5}}, \\\"type\\\": \\\"bar\\\"}], \\\"barpolar\\\": [{\\\"marker\\\": {\\\"line\\\": {\\\"color\\\": \\\"#E5ECF6\\\", \\\"width\\\": 0.5}}, \\\"type\\\": \\\"barpolar\\\"}], \\\"carpet\\\": [{\\\"aaxis\\\": {\\\"endlinecolor\\\": \\\"#2a3f5f\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"minorgridcolor\\\": \\\"white\\\", \\\"startlinecolor\\\": \\\"#2a3f5f\\\"}, \\\"baxis\\\": {\\\"endlinecolor\\\": \\\"#2a3f5f\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"minorgridcolor\\\": \\\"white\\\", \\\"startlinecolor\\\": \\\"#2a3f5f\\\"}, \\\"type\\\": \\\"carpet\\\"}], \\\"choropleth\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"type\\\": \\\"choropleth\\\"}], \\\"contour\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"contour\\\"}], \\\"contourcarpet\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"type\\\": \\\"contourcarpet\\\"}], \\\"heatmap\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"heatmap\\\"}], \\\"heatmapgl\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"heatmapgl\\\"}], \\\"histogram\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"histogram\\\"}], \\\"histogram2d\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"histogram2d\\\"}], \\\"histogram2dcontour\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"histogram2dcontour\\\"}], \\\"mesh3d\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"type\\\": \\\"mesh3d\\\"}], \\\"parcoords\\\": [{\\\"line\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"parcoords\\\"}], \\\"scatter\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatter\\\"}], \\\"scatter3d\\\": [{\\\"line\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatter3d\\\"}], \\\"scattercarpet\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattercarpet\\\"}], \\\"scattergeo\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattergeo\\\"}], \\\"scattergl\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattergl\\\"}], \\\"scattermapbox\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scattermapbox\\\"}], \\\"scatterpolar\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatterpolar\\\"}], \\\"scatterpolargl\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatterpolargl\\\"}], \\\"scatterternary\\\": [{\\\"marker\\\": {\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}}, \\\"type\\\": \\\"scatterternary\\\"}], \\\"surface\\\": [{\\\"colorbar\\\": {\\\"outlinewidth\\\": 0, \\\"ticks\\\": \\\"\\\"}, \\\"colorscale\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"type\\\": \\\"surface\\\"}], \\\"table\\\": [{\\\"cells\\\": {\\\"fill\\\": {\\\"color\\\": \\\"#EBF0F8\\\"}, \\\"line\\\": {\\\"color\\\": \\\"white\\\"}}, \\\"header\\\": {\\\"fill\\\": {\\\"color\\\": \\\"#C8D4E3\\\"}, \\\"line\\\": {\\\"color\\\": \\\"white\\\"}}, \\\"type\\\": \\\"table\\\"}]}, \\\"layout\\\": {\\\"annotationdefaults\\\": {\\\"arrowcolor\\\": \\\"#2a3f5f\\\", \\\"arrowhead\\\": 0, \\\"arrowwidth\\\": 1}, \\\"colorscale\\\": {\\\"diverging\\\": [[0, \\\"#8e0152\\\"], [0.1, \\\"#c51b7d\\\"], [0.2, \\\"#de77ae\\\"], [0.3, \\\"#f1b6da\\\"], [0.4, \\\"#fde0ef\\\"], [0.5, \\\"#f7f7f7\\\"], [0.6, \\\"#e6f5d0\\\"], [0.7, \\\"#b8e186\\\"], [0.8, \\\"#7fbc41\\\"], [0.9, \\\"#4d9221\\\"], [1, \\\"#276419\\\"]], \\\"sequential\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]], \\\"sequentialminus\\\": [[0.0, \\\"#0d0887\\\"], [0.1111111111111111, \\\"#46039f\\\"], [0.2222222222222222, \\\"#7201a8\\\"], [0.3333333333333333, \\\"#9c179e\\\"], [0.4444444444444444, \\\"#bd3786\\\"], [0.5555555555555556, \\\"#d8576b\\\"], [0.6666666666666666, \\\"#ed7953\\\"], [0.7777777777777778, \\\"#fb9f3a\\\"], [0.8888888888888888, \\\"#fdca26\\\"], [1.0, \\\"#f0f921\\\"]]}, \\\"colorway\\\": [\\\"#636efa\\\", \\\"#EF553B\\\", \\\"#00cc96\\\", \\\"#ab63fa\\\", \\\"#FFA15A\\\", \\\"#19d3f3\\\", \\\"#FF6692\\\", \\\"#B6E880\\\", \\\"#FF97FF\\\", \\\"#FECB52\\\"], \\\"font\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}, \\\"geo\\\": {\\\"bgcolor\\\": \\\"white\\\", \\\"lakecolor\\\": \\\"white\\\", \\\"landcolor\\\": \\\"#E5ECF6\\\", \\\"showlakes\\\": true, \\\"showland\\\": true, \\\"subunitcolor\\\": \\\"white\\\"}, \\\"hoverlabel\\\": {\\\"align\\\": \\\"left\\\"}, \\\"hovermode\\\": \\\"closest\\\", \\\"mapbox\\\": {\\\"style\\\": \\\"light\\\"}, \\\"paper_bgcolor\\\": \\\"white\\\", \\\"plot_bgcolor\\\": \\\"#E5ECF6\\\", \\\"polar\\\": {\\\"angularaxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}, \\\"bgcolor\\\": \\\"#E5ECF6\\\", \\\"radialaxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}}, \\\"scene\\\": {\\\"xaxis\\\": {\\\"backgroundcolor\\\": \\\"#E5ECF6\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"gridwidth\\\": 2, \\\"linecolor\\\": \\\"white\\\", \\\"showbackground\\\": true, \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\"}, \\\"yaxis\\\": {\\\"backgroundcolor\\\": \\\"#E5ECF6\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"gridwidth\\\": 2, \\\"linecolor\\\": \\\"white\\\", \\\"showbackground\\\": true, \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\"}, \\\"zaxis\\\": {\\\"backgroundcolor\\\": \\\"#E5ECF6\\\", \\\"gridcolor\\\": \\\"white\\\", \\\"gridwidth\\\": 2, \\\"linecolor\\\": \\\"white\\\", \\\"showbackground\\\": true, \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\"}}, \\\"shapedefaults\\\": {\\\"line\\\": {\\\"color\\\": \\\"#2a3f5f\\\"}}, \\\"ternary\\\": {\\\"aaxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}, \\\"baxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}, \\\"bgcolor\\\": \\\"#E5ECF6\\\", \\\"caxis\\\": {\\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\"}}, \\\"title\\\": {\\\"x\\\": 0.05}, \\\"xaxis\\\": {\\\"automargin\\\": true, \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\", \\\"zerolinewidth\\\": 2}, \\\"yaxis\\\": {\\\"automargin\\\": true, \\\"gridcolor\\\": \\\"white\\\", \\\"linecolor\\\": \\\"white\\\", \\\"ticks\\\": \\\"\\\", \\\"zerolinecolor\\\": \\\"white\\\", \\\"zerolinewidth\\\": 2}}}, \\\"xaxis\\\": {\\\"anchor\\\": \\\"y\\\", \\\"domain\\\": [0.0, 0.98], \\\"title\\\": {\\\"text\\\": \\\"total_iters\\\"}}, \\\"yaxis\\\": {\\\"anchor\\\": \\\"x\\\", \\\"domain\\\": [0.0, 1.0], \\\"title\\\": {\\\"text\\\": \\\"val_mse\\\"}}},\\n\",\n       \"                        {\\\"responsive\\\": true}\\n\",\n       \"                    ).then(function(){\\n\",\n       \"                            \\n\",\n       \"var gd = document.getElementById('f4a60010-d2f6-4049-b731-a1472cb98e2e');\\n\",\n       \"var x = new MutationObserver(function (mutations, observer) {{\\n\",\n       \"        var display = window.getComputedStyle(gd).display;\\n\",\n       \"        if (!display || display === 'none') {{\\n\",\n       \"            console.log([gd, 'removed!']);\\n\",\n       \"            Plotly.purge(gd);\\n\",\n       \"            observer.disconnect();\\n\",\n       \"        }}\\n\",\n       \"}});\\n\",\n       \"\\n\",\n       \"// Listen for the removal of the full notebook cells\\n\",\n       \"var notebookContainer = gd.closest('#notebook-container');\\n\",\n       \"if (notebookContainer) {{\\n\",\n       \"    x.observe(notebookContainer, {childList: true});\\n\",\n       \"}}\\n\",\n       \"\\n\",\n       \"// Listen for the clearing of the current output cell\\n\",\n       \"var outputEl = gd.closest('.output');\\n\",\n       \"if (outputEl) {{\\n\",\n       \"    x.observe(outputEl, {childList: true});\\n\",\n       \"}}\\n\",\n       \"\\n\",\n       \"                        })\\n\",\n       \"                };\\n\",\n       \"                });\\n\",\n       \"            </script>\\n\",\n       \"        </div>\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"fig = px.line(trainer.training_info, x='total_iters', y='val_mse')\\n\",\n    \"fig.show()\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.4\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "samples/pre-trained_model_library.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# Pre-trained Model Library\\n\",\n    \"\\n\",\n    \"**XenonPy.MDL** is a library of pre-trained models that were obtained by feeding diverse materials data on structure-property relationships into neural networks and some other supervised learning models.\\n\",\n    \"\\n\",\n    \"XenonPy offers a simple-to-use toolchain to perform **transfer learning** with the given **pre-trained models** seamlessly.\\n\",\n    \"In this tutorial, we will focus on model querying and retrieving.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### useful functions\\n\",\n    \"\\n\",\n    \"Running the following cell will load some commonly used packages, such as [NumPy](https://numpy.org/), [pandas](https://pandas.pydata.org/), and so on. It will also import some in-house functions used in this tutorial. See *'tools.ipynb'* file to check what will be imported.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run tools.ipynb\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### access pre-trained models with MDL class\\n\",\n    \"\\n\",\n    \"We prepared a wide range of APIs to let you query and download our models.\\n\",\n    \"These APIs can be accessed via any HTTP requests.\\n\",\n    \"For convenience, we implemented some of the most popular APIs and wrapped them into XenonPy.\\n\",\n    \"All these functions can be accessed using `xenonpy.mdl.MDL`.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# --- import necessary libraries\\n\",\n    \"\\n\",\n    \"from xenonpy.mdl import MDL\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"MDL(api_key='anonymous.user.key', endpoint='http://xenon.ism.ac.jp/api')\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"'0.1.1'\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# --- init and check\\n\",\n    \"\\n\",\n    \"mdl = MDL()\\n\",\n    \"mdl\\n\",\n    \"\\n\",\n    \"mdl.version\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Noticed that ``mdl`` contains optional parameters ``api_key`` and ``endpoint``.\\n\",\n    \"``endpoint`` point to where data is fetched. ``api_key`` is an access token used to validate the authorization and action permissions.\\n\",\n    \"At this moment, the defaulat key, ``anonymous.user.key``, is the only valid option.\\n\",\n    \"We will open the public registration system when the system is ready.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### querying\\n\",\n    \"\\n\",\n    \"There are many ways to query models. The most straightforward method is to use `mdl`.\\n\",\n    \"It accepts variable keywords as input and any hit keyword will be returned. For example, to query models that predict property **refractive index**:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"QueryModelDetails(api_key='anonymous.user.key', endpoint='http://xenon.ism.ac.jp/api', variables={'query': ('refractive',)})\\n\",\n       \"Queryable: \\n\",\n       \" id\\n\",\n       \" transferred\\n\",\n       \" succeed\\n\",\n       \" isRegression\\n\",\n       \" deprecated\\n\",\n       \" modelset\\n\",\n       \" method\\n\",\n       \" property\\n\",\n       \" descriptor\\n\",\n       \" lang\\n\",\n       \" accuracy\\n\",\n       \" precision\\n\",\n       \" recall\\n\",\n       \" f1\\n\",\n       \" sensitivity\\n\",\n       \" prevalence\\n\",\n       \" specificity\\n\",\n       \" ppv\\n\",\n       \" npv\\n\",\n       \" meanAbsError\\n\",\n       \" maxAbsError\\n\",\n       \" meanSquareError\\n\",\n       \" rootMeanSquareError\\n\",\n       \" r2\\n\",\n       \" pValue\\n\",\n       \" spearmanCorr\\n\",\n       \" pearsonCorr\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# --- query data\\n\",\n    \"\\n\",\n    \"query = mdl('refractive')\\n\",\n    \"query\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"You can see that run a querying method does not execute the querying immediately, but simply return a queryable object.\\n\",\n    \"If you print out the object, the `queryable` list will be shown. Only the variables in the list can be fetched from the server.\\n\",\n    \"\\n\",\n    \"Another way to get the `queryable` list is call `query.queryable` as below:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"['id',\\n\",\n       \" 'transferred',\\n\",\n       \" 'succeed',\\n\",\n       \" 'isRegression',\\n\",\n       \" 'deprecated',\\n\",\n       \" 'modelset',\\n\",\n       \" 'method',\\n\",\n       \" 'property',\\n\",\n       \" 'descriptor',\\n\",\n       \" 'lang',\\n\",\n       \" 'accuracy',\\n\",\n       \" 'precision',\\n\",\n       \" 'recall',\\n\",\n       \" 'f1',\\n\",\n       \" 'sensitivity',\\n\",\n       \" 'prevalence',\\n\",\n       \" 'specificity',\\n\",\n       \" 'ppv',\\n\",\n       \" 'npv',\\n\",\n       \" 'meanAbsError',\\n\",\n       \" 'maxAbsError',\\n\",\n       \" 'meanSquareError',\\n\",\n       \" 'rootMeanSquareError',\\n\",\n       \" 'r2',\\n\",\n       \" 'pValue',\\n\",\n       \" 'spearmanCorr',\\n\",\n       \" 'pearsonCorr']\"\n      ]\n     },\n     \"execution_count\": 5,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"query.queryable\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Let's say we only want to know the variables of `modelset`, `method`, `property`, `descriptor`, `meanAbsError`, `meanSquareError`, `pValue`, and `pearsonCorr`. Execute the query as follow:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>modelset</th>\\n\",\n       \"      <th>method</th>\\n\",\n       \"      <th>property</th>\\n\",\n       \"      <th>descriptor</th>\\n\",\n       \"      <th>meanAbsError</th>\\n\",\n       \"      <th>meanSquareError</th>\\n\",\n       \"      <th>pValue</th>\\n\",\n       \"      <th>pearsonCorr</th>\\n\",\n       \"      <th>id</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.422960</td>\\n\",\n       \"      <td>0.418109</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.631021</td>\\n\",\n       \"      <td>2335</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.545381</td>\\n\",\n       \"      <td>1.641444</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.578646</td>\\n\",\n       \"      <td>2338</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.708027</td>\\n\",\n       \"      <td>3.087893</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.439089</td>\\n\",\n       \"      <td>2339</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.585778</td>\\n\",\n       \"      <td>2.238217</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.531137</td>\\n\",\n       \"      <td>2341</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.542811</td>\\n\",\n       \"      <td>2.174997</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.558526</td>\\n\",\n       \"      <td>2342</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3595</td>\\n\",\n       \"      <td>Polymer Genome Dataset</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>organic.polymer.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.082331</td>\\n\",\n       \"      <td>0.019165</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.824684</td>\\n\",\n       \"      <td>31191</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3596</td>\\n\",\n       \"      <td>Polymer Genome Dataset</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>organic.polymer.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.094522</td>\\n\",\n       \"      <td>0.023909</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.667404</td>\\n\",\n       \"      <td>31192</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3597</td>\\n\",\n       \"      <td>Polymer Genome Dataset</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>organic.polymer.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.128509</td>\\n\",\n       \"      <td>0.039972</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.680136</td>\\n\",\n       \"      <td>31193</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3598</td>\\n\",\n       \"      <td>Polymer Genome Dataset</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>organic.polymer.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.096644</td>\\n\",\n       \"      <td>0.025381</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.704920</td>\\n\",\n       \"      <td>31194</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3599</td>\\n\",\n       \"      <td>Polymer Genome Dataset</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>organic.polymer.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.122035</td>\\n\",\n       \"      <td>0.040172</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.679644</td>\\n\",\n       \"      <td>31195</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>3600 rows × 9 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                             modelset  \\\\\\n\",\n       \"0     Stable inorganic compounds in materials project   \\n\",\n       \"1     Stable inorganic compounds in materials project   \\n\",\n       \"2     Stable inorganic compounds in materials project   \\n\",\n       \"3     Stable inorganic compounds in materials project   \\n\",\n       \"4     Stable inorganic compounds in materials project   \\n\",\n       \"...                                               ...   \\n\",\n       \"3595                           Polymer Genome Dataset   \\n\",\n       \"3596                           Polymer Genome Dataset   \\n\",\n       \"3597                           Polymer Genome Dataset   \\n\",\n       \"3598                           Polymer Genome Dataset   \\n\",\n       \"3599                           Polymer Genome Dataset   \\n\",\n       \"\\n\",\n       \"                         method                            property  \\\\\\n\",\n       \"0     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"1     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"2     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"3     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"4     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"...                         ...                                 ...   \\n\",\n       \"3595  pytorch.nn.neural_network    organic.polymer.refractive_index   \\n\",\n       \"3596  pytorch.nn.neural_network    organic.polymer.refractive_index   \\n\",\n       \"3597  pytorch.nn.neural_network    organic.polymer.refractive_index   \\n\",\n       \"3598  pytorch.nn.neural_network    organic.polymer.refractive_index   \\n\",\n       \"3599  pytorch.nn.neural_network    organic.polymer.refractive_index   \\n\",\n       \"\\n\",\n       \"                descriptor  meanAbsError  meanSquareError pValue  pearsonCorr  \\\\\\n\",\n       \"0     xenonpy.compositions      0.422960         0.418109   None     0.631021   \\n\",\n       \"1     xenonpy.compositions      0.545381         1.641444   None     0.578646   \\n\",\n       \"2     xenonpy.compositions      0.708027         3.087893   None     0.439089   \\n\",\n       \"3     xenonpy.compositions      0.585778         2.238217   None     0.531137   \\n\",\n       \"4     xenonpy.compositions      0.542811         2.174997   None     0.558526   \\n\",\n       \"...                    ...           ...              ...    ...          ...   \\n\",\n       \"3595  xenonpy.compositions      0.082331         0.019165   None     0.824684   \\n\",\n       \"3596  xenonpy.compositions      0.094522         0.023909   None     0.667404   \\n\",\n       \"3597  xenonpy.compositions      0.128509         0.039972   None     0.680136   \\n\",\n       \"3598  xenonpy.compositions      0.096644         0.025381   None     0.704920   \\n\",\n       \"3599  xenonpy.compositions      0.122035         0.040172   None     0.679644   \\n\",\n       \"\\n\",\n       \"         id  \\n\",\n       \"0      2335  \\n\",\n       \"1      2338  \\n\",\n       \"2      2339  \\n\",\n       \"3      2341  \\n\",\n       \"4      2342  \\n\",\n       \"...     ...  \\n\",\n       \"3595  31191  \\n\",\n       \"3596  31192  \\n\",\n       \"3597  31193  \\n\",\n       \"3598  31194  \\n\",\n       \"3599  31195  \\n\",\n       \"\\n\",\n       \"[3600 rows x 9 columns]\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"query(\\n\",\n    \"    'modelset',\\n\",\n    \"    'method',\\n\",\n    \"    'property',\\n\",\n    \"    'descriptor',\\n\",\n    \"    'meanAbsError',  \\n\",\n    \"    'meanSquareError',\\n\",\n    \"    'pValue',\\n\",\n    \"    'pearsonCorr' \\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"If everything goes right, you will get a pandas DataFrame in return.\\n\",\n    \"You can see that 3600 models matched the keyword and these models are contained in two sets of models.\\n\",\n    \"Note that all variables in column `pValue` are `None`. This is not a querying error, all variables are `None` indeed, because they were not recorded during training.\\n\",\n    \"\\n\",\n    \"You can also retrieve the last querying result from the query object via the `results` property.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>modelset</th>\\n\",\n       \"      <th>method</th>\\n\",\n       \"      <th>property</th>\\n\",\n       \"      <th>descriptor</th>\\n\",\n       \"      <th>meanAbsError</th>\\n\",\n       \"      <th>meanSquareError</th>\\n\",\n       \"      <th>pValue</th>\\n\",\n       \"      <th>pearsonCorr</th>\\n\",\n       \"      <th>id</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.422960</td>\\n\",\n       \"      <td>0.418109</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.631021</td>\\n\",\n       \"      <td>2335</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.545381</td>\\n\",\n       \"      <td>1.641444</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.578646</td>\\n\",\n       \"      <td>2338</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>0.708027</td>\\n\",\n       \"      <td>3.087893</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.439089</td>\\n\",\n       \"      <td>2339</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                          modelset                     method  \\\\\\n\",\n       \"0  Stable inorganic compounds in materials project  pytorch.nn.neural_network   \\n\",\n       \"1  Stable inorganic compounds in materials project  pytorch.nn.neural_network   \\n\",\n       \"2  Stable inorganic compounds in materials project  pytorch.nn.neural_network   \\n\",\n       \"\\n\",\n       \"                             property            descriptor  meanAbsError  \\\\\\n\",\n       \"0  inorganic.crystal.refractive_index  xenonpy.compositions      0.422960   \\n\",\n       \"1  inorganic.crystal.refractive_index  xenonpy.compositions      0.545381   \\n\",\n       \"2  inorganic.crystal.refractive_index  xenonpy.compositions      0.708027   \\n\",\n       \"\\n\",\n       \"   meanSquareError pValue  pearsonCorr    id  \\n\",\n       \"0         0.418109   None     0.631021  2335  \\n\",\n       \"1         1.641444   None     0.578646  2338  \\n\",\n       \"2         3.087893   None     0.439089  2339  \"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"query.results.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Querying with `mdl` is simple but not efficient enough. In most cases, we may know exactly what we want.\\n\",\n    \"\\n\",\n    \"Let's say we want to retrieve some models that were trained in the inorganic modelset and can predict the property of refractive index.\\n\",\n    \"In this case, we need to feed the parameter `modelset_has` with **inorganic** and the `property_has` with **refractive**, respectively.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th>transferred</th>\\n\",\n       \"      <th>succeed</th>\\n\",\n       \"      <th>isRegression</th>\\n\",\n       \"      <th>deprecated</th>\\n\",\n       \"      <th>modelset</th>\\n\",\n       \"      <th>method</th>\\n\",\n       \"      <th>property</th>\\n\",\n       \"      <th>descriptor</th>\\n\",\n       \"      <th>lang</th>\\n\",\n       \"      <th>meanAbsError</th>\\n\",\n       \"      <th>maxAbsError</th>\\n\",\n       \"      <th>meanSquareError</th>\\n\",\n       \"      <th>rootMeanSquareError</th>\\n\",\n       \"      <th>r2</th>\\n\",\n       \"      <th>pValue</th>\\n\",\n       \"      <th>spearmanCorr</th>\\n\",\n       \"      <th>pearsonCorr</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>2335</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.422960</td>\\n\",\n       \"      <td>1.782320</td>\\n\",\n       \"      <td>0.418109</td>\\n\",\n       \"      <td>0.646613</td>\\n\",\n       \"      <td>0.226642</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.805147</td>\\n\",\n       \"      <td>0.631021</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>2338</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.545381</td>\\n\",\n       \"      <td>8.948927</td>\\n\",\n       \"      <td>1.641444</td>\\n\",\n       \"      <td>1.281188</td>\\n\",\n       \"      <td>0.330978</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.808188</td>\\n\",\n       \"      <td>0.578646</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>2339</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.708027</td>\\n\",\n       \"      <td>10.142218</td>\\n\",\n       \"      <td>3.087893</td>\\n\",\n       \"      <td>1.757240</td>\\n\",\n       \"      <td>0.173911</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.839800</td>\\n\",\n       \"      <td>0.439089</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>2341</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.585778</td>\\n\",\n       \"      <td>11.835847</td>\\n\",\n       \"      <td>2.238217</td>\\n\",\n       \"      <td>1.496067</td>\\n\",\n       \"      <td>0.241867</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.690957</td>\\n\",\n       \"      <td>0.531137</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>2342</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.542811</td>\\n\",\n       \"      <td>11.045835</td>\\n\",\n       \"      <td>2.174997</td>\\n\",\n       \"      <td>1.474787</td>\\n\",\n       \"      <td>0.275737</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.886405</td>\\n\",\n       \"      <td>0.558526</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2395</td>\\n\",\n       \"      <td>4863</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>All inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.429642</td>\\n\",\n       \"      <td>2.204849</td>\\n\",\n       \"      <td>0.434043</td>\\n\",\n       \"      <td>0.658819</td>\\n\",\n       \"      <td>0.441885</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.808280</td>\\n\",\n       \"      <td>0.712245</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2396</td>\\n\",\n       \"      <td>4865</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>All inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.569579</td>\\n\",\n       \"      <td>7.622173</td>\\n\",\n       \"      <td>1.656191</td>\\n\",\n       \"      <td>1.286931</td>\\n\",\n       \"      <td>0.215002</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.829544</td>\\n\",\n       \"      <td>0.475225</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2397</td>\\n\",\n       \"      <td>4867</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>All inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.436152</td>\\n\",\n       \"      <td>2.635126</td>\\n\",\n       \"      <td>0.559099</td>\\n\",\n       \"      <td>0.747729</td>\\n\",\n       \"      <td>0.426260</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.834226</td>\\n\",\n       \"      <td>0.655400</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2398</td>\\n\",\n       \"      <td>4868</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>All inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.383506</td>\\n\",\n       \"      <td>2.473203</td>\\n\",\n       \"      <td>0.339653</td>\\n\",\n       \"      <td>0.582797</td>\\n\",\n       \"      <td>0.599966</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.840016</td>\\n\",\n       \"      <td>0.798442</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2399</td>\\n\",\n       \"      <td>4871</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>All inorganic compounds in materials project</td>\\n\",\n       \"      <td>pytorch.nn.neural_network</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td>xenonpy.compositions</td>\\n\",\n       \"      <td>python</td>\\n\",\n       \"      <td>0.394862</td>\\n\",\n       \"      <td>2.490165</td>\\n\",\n       \"      <td>0.397413</td>\\n\",\n       \"      <td>0.630407</td>\\n\",\n       \"      <td>0.674495</td>\\n\",\n       \"      <td>None</td>\\n\",\n       \"      <td>0.800693</td>\\n\",\n       \"      <td>0.839631</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>2400 rows × 18 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"        id  transferred  succeed  isRegression  deprecated  \\\\\\n\",\n       \"0     2335        False     True          True       False   \\n\",\n       \"1     2338        False     True          True       False   \\n\",\n       \"2     2339        False     True          True       False   \\n\",\n       \"3     2341        False     True          True       False   \\n\",\n       \"4     2342        False     True          True       False   \\n\",\n       \"...    ...          ...      ...           ...         ...   \\n\",\n       \"2395  4863        False     True          True       False   \\n\",\n       \"2396  4865        False     True          True       False   \\n\",\n       \"2397  4867        False     True          True       False   \\n\",\n       \"2398  4868        False     True          True       False   \\n\",\n       \"2399  4871        False     True          True       False   \\n\",\n       \"\\n\",\n       \"                                             modelset  \\\\\\n\",\n       \"0     Stable inorganic compounds in materials project   \\n\",\n       \"1     Stable inorganic compounds in materials project   \\n\",\n       \"2     Stable inorganic compounds in materials project   \\n\",\n       \"3     Stable inorganic compounds in materials project   \\n\",\n       \"4     Stable inorganic compounds in materials project   \\n\",\n       \"...                                               ...   \\n\",\n       \"2395     All inorganic compounds in materials project   \\n\",\n       \"2396     All inorganic compounds in materials project   \\n\",\n       \"2397     All inorganic compounds in materials project   \\n\",\n       \"2398     All inorganic compounds in materials project   \\n\",\n       \"2399     All inorganic compounds in materials project   \\n\",\n       \"\\n\",\n       \"                         method                            property  \\\\\\n\",\n       \"0     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"1     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"2     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"3     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"4     pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"...                         ...                                 ...   \\n\",\n       \"2395  pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"2396  pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"2397  pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"2398  pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"2399  pytorch.nn.neural_network  inorganic.crystal.refractive_index   \\n\",\n       \"\\n\",\n       \"                descriptor    lang  meanAbsError  maxAbsError  \\\\\\n\",\n       \"0     xenonpy.compositions  python      0.422960     1.782320   \\n\",\n       \"1     xenonpy.compositions  python      0.545381     8.948927   \\n\",\n       \"2     xenonpy.compositions  python      0.708027    10.142218   \\n\",\n       \"3     xenonpy.compositions  python      0.585778    11.835847   \\n\",\n       \"4     xenonpy.compositions  python      0.542811    11.045835   \\n\",\n       \"...                    ...     ...           ...          ...   \\n\",\n       \"2395  xenonpy.compositions  python      0.429642     2.204849   \\n\",\n       \"2396  xenonpy.compositions  python      0.569579     7.622173   \\n\",\n       \"2397  xenonpy.compositions  python      0.436152     2.635126   \\n\",\n       \"2398  xenonpy.compositions  python      0.383506     2.473203   \\n\",\n       \"2399  xenonpy.compositions  python      0.394862     2.490165   \\n\",\n       \"\\n\",\n       \"      meanSquareError  rootMeanSquareError        r2 pValue  spearmanCorr  \\\\\\n\",\n       \"0            0.418109             0.646613  0.226642   None      0.805147   \\n\",\n       \"1            1.641444             1.281188  0.330978   None      0.808188   \\n\",\n       \"2            3.087893             1.757240  0.173911   None      0.839800   \\n\",\n       \"3            2.238217             1.496067  0.241867   None      0.690957   \\n\",\n       \"4            2.174997             1.474787  0.275737   None      0.886405   \\n\",\n       \"...               ...                  ...       ...    ...           ...   \\n\",\n       \"2395         0.434043             0.658819  0.441885   None      0.808280   \\n\",\n       \"2396         1.656191             1.286931  0.215002   None      0.829544   \\n\",\n       \"2397         0.559099             0.747729  0.426260   None      0.834226   \\n\",\n       \"2398         0.339653             0.582797  0.599966   None      0.840016   \\n\",\n       \"2399         0.397413             0.630407  0.674495   None      0.800693   \\n\",\n       \"\\n\",\n       \"      pearsonCorr  \\n\",\n       \"0        0.631021  \\n\",\n       \"1        0.578646  \\n\",\n       \"2        0.439089  \\n\",\n       \"3        0.531137  \\n\",\n       \"4        0.558526  \\n\",\n       \"...           ...  \\n\",\n       \"2395     0.712245  \\n\",\n       \"2396     0.475225  \\n\",\n       \"2397     0.655400  \\n\",\n       \"2398     0.798442  \\n\",\n       \"2399     0.839631  \\n\",\n       \"\\n\",\n       \"[2400 rows x 18 columns]\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# --- query data\\n\",\n    \"\\n\",\n    \"mdl(modelset_has='inorganic', property_has='refractive')()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"You can see that only the models that belong to **All inorganic compounds in materials project** modelset were returned. If you call a query object without parameters, all queryable variables will be returned.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### list/get_detail variables\\n\",\n    \"\\n\",\n    \"You can check some meta info of the database. To do so, we use `mdl.list_*` and `mdl.get_*_detail` methods. For example, `mdl.list_properties` will return:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>name</th>\\n\",\n       \"      <th>fullName</th>\\n\",\n       \"      <th>symbol</th>\\n\",\n       \"      <th>unit</th>\\n\",\n       \"      <th>describe</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>inorganic.crystal.efermi</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>inorganic.crystal.refractive_index</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>inorganic.crystal.band_gap</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>inorganic.crystal.density</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>inorganic.crystal.total_magnetization</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>inorganic.crystal.dielectric_const_elec</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>6</td>\\n\",\n       \"      <td>inorganic.crystal.dielectric_const_total</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>7</td>\\n\",\n       \"      <td>inorganic.crystal.final_energy_per_atom</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>8</td>\\n\",\n       \"      <td>inorganic.crystal.formation_energy_per_atom</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>9</td>\\n\",\n       \"      <td>inorganic.crystal.volume</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>10</td>\\n\",\n       \"      <td>organic.polymer.band_gap_pbe</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>11</td>\\n\",\n       \"      <td>organic.polymer.ionization_energy</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>12</td>\\n\",\n       \"      <td>organic.polymer.electron_affinity</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>13</td>\\n\",\n       \"      <td>organic.polymer.atomization_energy</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>14</td>\\n\",\n       \"      <td>organic.polymer.cohesive_energy</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>15</td>\\n\",\n       \"      <td>organic.polymer.refractive_index</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>16</td>\\n\",\n       \"      <td>organic.polymer.density</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>17</td>\\n\",\n       \"      <td>organic.polymer.dielectric_constant</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>18</td>\\n\",\n       \"      <td>organic.polymer.volume_of_cell</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>19</td>\\n\",\n       \"      <td>organic.polymer.dielectric_constant_electronic</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>20</td>\\n\",\n       \"      <td>organic.polymer.dielectric_constant_ionic</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>21</td>\\n\",\n       \"      <td>organic.polymer.band_gap_hse06</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>22</td>\\n\",\n       \"      <td>organic.small_molecule</td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"      <td></td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                              name fullName symbol unit  \\\\\\n\",\n       \"0                         inorganic.crystal.efermi                        \\n\",\n       \"1               inorganic.crystal.refractive_index                        \\n\",\n       \"2                       inorganic.crystal.band_gap                        \\n\",\n       \"3                        inorganic.crystal.density                        \\n\",\n       \"4            inorganic.crystal.total_magnetization                        \\n\",\n       \"5          inorganic.crystal.dielectric_const_elec                        \\n\",\n       \"6         inorganic.crystal.dielectric_const_total                        \\n\",\n       \"7          inorganic.crystal.final_energy_per_atom                        \\n\",\n       \"8      inorganic.crystal.formation_energy_per_atom                        \\n\",\n       \"9                         inorganic.crystal.volume                        \\n\",\n       \"10                    organic.polymer.band_gap_pbe                        \\n\",\n       \"11               organic.polymer.ionization_energy                        \\n\",\n       \"12               organic.polymer.electron_affinity                        \\n\",\n       \"13              organic.polymer.atomization_energy                        \\n\",\n       \"14                 organic.polymer.cohesive_energy                        \\n\",\n       \"15                organic.polymer.refractive_index                        \\n\",\n       \"16                         organic.polymer.density                        \\n\",\n       \"17             organic.polymer.dielectric_constant                        \\n\",\n       \"18                  organic.polymer.volume_of_cell                        \\n\",\n       \"19  organic.polymer.dielectric_constant_electronic                        \\n\",\n       \"20       organic.polymer.dielectric_constant_ionic                        \\n\",\n       \"21                  organic.polymer.band_gap_hse06                        \\n\",\n       \"22                          organic.small_molecule                        \\n\",\n       \"\\n\",\n       \"   describe  \\n\",\n       \"0            \\n\",\n       \"1            \\n\",\n       \"2            \\n\",\n       \"3            \\n\",\n       \"4            \\n\",\n       \"5            \\n\",\n       \"6            \\n\",\n       \"7            \\n\",\n       \"8            \\n\",\n       \"9            \\n\",\n       \"10           \\n\",\n       \"11           \\n\",\n       \"12           \\n\",\n       \"13           \\n\",\n       \"14           \\n\",\n       \"15           \\n\",\n       \"16           \\n\",\n       \"17           \\n\",\n       \"18           \\n\",\n       \"19           \\n\",\n       \"20           \\n\",\n       \"21           \\n\",\n       \"22           \"\n      ]\n     },\n     \"execution_count\": 9,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"mdl.list_properties()()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"and `mdl.get_property_detail` will return the property information including how many models are relevant to this property:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"{'name': 'inorganic.crystal.efermi',\\n\",\n       \" 'fullName': '',\\n\",\n       \" 'symbol': '',\\n\",\n       \" 'unit': '',\\n\",\n       \" 'describe': '',\\n\",\n       \" 'count': 2481}\"\n      ]\n     },\n     \"execution_count\": 10,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"mdl.get_property_detail('inorganic.crystal.efermi')()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"These querying statements are very useful when you want to know what is in the database.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### get training info/env and download url by model ID\\n\",\n    \"\\n\",\n    \"Note that all models have their unique IDs. We can use model ID to get more information about a particular model. The following shows how to get training info/env by model ID.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>total_iters</th>\\n\",\n       \"      <th>i_epoch</th>\\n\",\n       \"      <th>i_batch</th>\\n\",\n       \"      <th>train_mse_loss</th>\\n\",\n       \"      <th>val_mae</th>\\n\",\n       \"      <th>val_mse</th>\\n\",\n       \"      <th>val_rmse</th>\\n\",\n       \"      <th>val_r2</th>\\n\",\n       \"      <th>val_pearsonr</th>\\n\",\n       \"      <th>val_spearmanr</th>\\n\",\n       \"      <th>val_p_value</th>\\n\",\n       \"      <th>val_max_ae</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>694</td>\\n\",\n       \"      <td>694</td>\\n\",\n       \"      <td>22</td>\\n\",\n       \"      <td>23</td>\\n\",\n       \"      <td>2.060905</td>\\n\",\n       \"      <td>1.098812</td>\\n\",\n       \"      <td>2.106717</td>\\n\",\n       \"      <td>1.451453</td>\\n\",\n       \"      <td>0.701376</td>\\n\",\n       \"      <td>0.850455</td>\\n\",\n       \"      <td>0.847006</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>12.112278</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>695</td>\\n\",\n       \"      <td>695</td>\\n\",\n       \"      <td>22</td>\\n\",\n       \"      <td>24</td>\\n\",\n       \"      <td>2.049812</td>\\n\",\n       \"      <td>1.162004</td>\\n\",\n       \"      <td>2.331702</td>\\n\",\n       \"      <td>1.526991</td>\\n\",\n       \"      <td>0.669485</td>\\n\",\n       \"      <td>0.844444</td>\\n\",\n       \"      <td>0.839916</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>12.192457</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>696</td>\\n\",\n       \"      <td>696</td>\\n\",\n       \"      <td>22</td>\\n\",\n       \"      <td>25</td>\\n\",\n       \"      <td>2.156136</td>\\n\",\n       \"      <td>1.092442</td>\\n\",\n       \"      <td>2.166551</td>\\n\",\n       \"      <td>1.471921</td>\\n\",\n       \"      <td>0.692895</td>\\n\",\n       \"      <td>0.837554</td>\\n\",\n       \"      <td>0.828305</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>12.244514</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"     total_iters  i_epoch  i_batch  train_mse_loss   val_mae   val_mse  \\\\\\n\",\n       \"694          694       22       23        2.060905  1.098812  2.106717   \\n\",\n       \"695          695       22       24        2.049812  1.162004  2.331702   \\n\",\n       \"696          696       22       25        2.156136  1.092442  2.166551   \\n\",\n       \"\\n\",\n       \"     val_rmse    val_r2  val_pearsonr  val_spearmanr  val_p_value  val_max_ae  \\n\",\n       \"694  1.451453  0.701376      0.850455       0.847006          0.0   12.112278  \\n\",\n       \"695  1.526991  0.669485      0.844444       0.839916          0.0   12.192457  \\n\",\n       \"696  1.471921  0.692895      0.837554       0.828305          0.0   12.244514  \"\n      ]\n     },\n     \"execution_count\": 11,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<matplotlib.axes._subplots.AxesSubplot at 0x1a1f5ff050>\"\n      ]\n     },\n     \"execution_count\": 11,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"iVBORw0KGgoAAAANSUhEUgAAAzkAAAGoCAYAAABltyvWAAAABHNCSVQICAgIfAhkiAAAAAlwSFlzAAAPYQAAD2EBqD+naQAAADh0RVh0U29mdHdhcmUAbWF0cGxvdGxpYiB2ZXJzaW9uMy4xLjEsIGh0dHA6Ly9tYXRwbG90bGliLm9yZy8QZhcZAAAgAElEQVR4nOzdeZxcVZ3//9etrdd00gkhCSSBgHJFkR1BBUQWxYUZl8jgODiADCoO4vIdHdRBBBFRFmVcUGZkwJ84jqMO6ogy4oYsggqKLAUBEsgC2dPp9FJdVff3Ry1d3elO0nvfyuv5ePjo7lu3bp3OiT7y9nPO5wRRFCFJkiRJ9SIx1QOQJEmSpPFkyJEkSZJUVww5kiRJkuqKIUeSJElSXTHkSJIkSaorhhxJkiRJdcWQI0mSJKmupKZ6ADuxGWgA1kz1QCRJkiRNqQVALzBrZzcG0/ww0O4oihqLxWk9Ru1AIhHg/MWTcxdfzl28OX/x5dzFl3MXD4lEQBAEPUDTzu6d7pWcNUEQLOno6CKfL071WDRCqVSC9vYWnL/4ce7iy7mLN+cvvpy7+HLu4mP27BaSyWCXVni5J0eSJElSXTHkSJIkSaorhhxJkiRJdcWQI0mSJKmuGHIkSZIk1ZXp3l1NkiRJU6xYLFIo5Kd6GBOiWAzo6UmSy/VSKNhGeiolkykSifGpwRhyJEmSNKQoiujo2Eh3d+dUD2VCrV+foFi0ffR00NTUSlvbbIIgGNNzDDmSJEkaUiXgtLa2k8k0jPkfntNVMhlYxZliURSRy/XS2bkJgJkz54zpeYYcSZIkbadYLFQDTmtr21QPZ0KlUgkPAp0GMpkGADo7NzFjRvuYlq7ZeECSJEnbKRQKQP8/PKXJUPn7NtY9YIYcSZIkDatel6hpehqvv2+GHEmSJEl1xZAjSZIkqa4YciRJklTXnnvuOX7+85+N+v1//OPvOfbYI1mzZvU4jmr6+clPfsSxxx451cMYF9M+5BR6thHV6eFTkiRJmniXX/5Jfve7e0b9/pe+9BBuvfWn7LnnvHEclSbStA85xe5Ock/eN9XDkCRJUkxF0djOwEmn08yZswfJZHKcRqSJFotzcoobV5Hcb6pHIUmSpCiKyPVNzZkymXRixN23/vEfz+PBB//Igw/+kQce+AMAxx9/Avfddy8bN27k05++kgMPPJAvf/k67r77t2zYsJ6ZM2dx/PEncMEFH6ShoZE//vH3vP/97+G73/0hCxbsxdKlp/GmN72VRx99mPvuu5dMJsNrX/t6zj//QlKpXfvn9dKlp3HGGe/ggQf+wL333k1b20zOOec8lizZj6uv/izPPLOCAw4I+cQnLmXvvRcCcNttP+Zb37qZ1atX0tY2k1e/+mTe+94LyGQyADz00J+4/vov8eijjzBr1ixe+crjec973kdLS+uI/swqent7uPnmG7n99p+yYcM69tlnX84++zyOP/4EoNRm/Gtf+zI///nP2LRpIwsW7MXpp7+dN71pKQCbNm3k6quv5IEHfk93dw9hGHLeee/jsMOOGNV4RiIWIaew5XnSUz0ISZKk3VwURVzx//2RZau2TMnnv2DhTC56x+EjCjqf+czn+chHPsiee87jgx/8CP/wD+/kf/7ne1x55bXMmDGD/fZ7AZ/85EU8//xzXHbZlcyePZu//OXPXHHFpSxevC+nn/72IZ/7jW98nfe+9/285z0XcN999/CFL1zFAQe8iFNPfcMuj+3667/E+9//Yc4//0JuueVmrrrqCvbddz8uvPDDNDc38y//chFf/ep1fPrTn2PZsif43Ocu5+KLL+PAAw9ixYqnueSSjzNz5kzOOutcli17ggsvPJ93vvNs/vmf/4WNGzfy5S9/gQ9+8B/52tduHFVr5ksu+TjZ7GN86EMfZfHifbjjjtv5+Mf/iSuuuIpjj30VP/jBd/nlL+/gU5/6DHPn7sldd/2Gq676LEuWvIBDDjmUq666glwux7/+69fJZDLcfPM3uOiiD/ODH9xGU1PTiMczEmMKOWEYfgI4OZvNnjDM6zcAp2Sz2X3H8jnFLc+N5e2SJEkaLzE7NqetbSapVIqGhgba29sBOOaYV3LUUUdX73nZy47moIMO5YUvPACABQv24vvf/y+efPKJYZ979NEv521vOwOARYsW8+Mf38qf//zgiELOMce8gr/6qzcDsHTpGdx66/dZuvRvOPzw0ub/E088mTvv/BUAq1evIggCFizYm/nz5zN//nyuvfZLNDe3APDtb9/MkUcexVlnnVsd0yWXXM7pp/81Dzzwh+ozd9Xy5U9z552/5sorr+WVrzwOgLPP/geWLXucm276Bsce+ypWrVpFU1Mje+21N3Pm7MFb3/o3LF68L4sXLwZg1apV7L///uy990IaGhq48MIPc8opp5JITPyOmVGHnDAMPwBcCvxmmNffBJwLrBjtZ1QUNj9PFEUeRiVJkjSFgiDgonccHqvlakNZuHDRgJ/f+tbT+dWvfsXtt9/GypXP8tRTy1i9ehULFy4e9hn77LNkwM8tLa3k8yNrlrVo0T7V7xsbGwHYa6+9q9cymQy5XA4ohaqDDjqYc889k4ULF3PUUUdz3HGvIgwPBCCbzbJy5TOccspx233OihXLRxxynnxyGQAHH3zogOuHHHI411//JQDe8pa38Zvf/JI3v/n1hOGBvOxlx3DiiafQ3j4bKIWiyy77F379619yyCGHc/TRx3Diia+hoaFhRGMZjRGHnDAM9wb+DTgOyA5zzwLg68CvgX3HML6SfC9R9xaC5lljfpQkSZJGLwgCGjLx3oBf+4/sKIr4f//vgyxb9gSnnHIqr371Sbz73e/jc5+7fIfPSKe330wx0gYHQ+3fGS7ENTQ0cN111/P444/xu9/dy/3338utt36PU099Ax/72CeJoiKvec3reOc7z9nuvbNmtY9oXCVD/y7FYqE67kWLFvOd7/wPDzzwe+6//3fceeevuPnmb/Cxj32S173ujbzqVa/miCN+yu9+dze///19fOtbN3PDDdfzta/dyH777T+KMe260dSKDgc2AQcDvxv8YhiGAXAT8E3gV2MZHECQKP2XqLjl+bE+SpIkSbuhHVV/Hn88y913/5bLLruS9773Al7zmtexcOEiVq16dsxd2cbTPffcxY033sABB7yIM888i+uuu553vevd3HHH7QAsWbI/Tz/9JAsXLqr+p1gscN1117B27ci3fuy33wsA+POfHxxw/U9/epB99y1Vsb773f/kV7+6g6OOOobzz7+Qm2/+DkcccRR33HF7eS/ONaxevZKTTnoNH/3oJ/jOd/6HRCLgnnt+O8Y/jZ0bcSUnm83+CPgRQBiGQ93yQWABcBpw0VgGB0C5VV+wdS2pRQeO+XGaPMlkYsBXxYdzF1/OXbw5f/FVj3NXLNbPNoGmpmbWrFnN2rXb/5/mc+bMIZlM8ctf/h/t7e10dGzhppu+wYYNG+jry03BaIeWSiW58cYbaG5u5rjjTqCjYwt33XUnBx10CABnnPF3vO995/L5z3+GpUvPoKuri6uv/ixdXV07XHY3nCVL9uPlL38lV1/9WaBUtbnjjtv57W9/zaWXXgHAxo0b+I//uIHGxkZe8IIDWL78aZ54Isvb3vZ2MpkMjzzyF/70pwf5wAf+iTlz5nD33b+lq6uLgw46eKefn0wGpFKj/+/TuHZXC8PwYOCTwHHZbLZ3mBA0IpVKTibfQXt7y5ifp8nX1jax3TM0cZy7+HLu4s35i696mrueniTr1yfG/I/N6eCtb13KpZd+krPOejuNjU0kEv2/0/z587j44k9xww3X8/3vf5fZs+dw7LHHccYZ7+DOO39NMhkMCLGV99U+A0rVoiAY2Z9V7TOG+wyAVCrBy1/+Cj72sYu55ZZv8vWvf5XGxkZe8YpX8v73f4hUKsGhhx7CF7/4Zb72ta9y7rln0tjYxJFHHsUFF3yA5ubGXR5P5fMALr/8Sr7ylX/lyis/TWfnVvbbb3+uuOLznHDCiQC8+93vIYqKXHvt59m4cQNz5szhrW89nbPPfhfJZILPfObzfOELV3HRRR+is7OTffbZl0sv/QxHHDF8C+liMSCRSDBzZnN1n9JoBGMpw4Vh+B/Avtls9oQwDBuB3wM3ZbPZz5dfvwQ4awzd1Z4qdHcuWXHN39Nw0Ek0H//3ox6rJl8ymaCtrYmOjm4KhanZoKjRce7iy7mLN+cvvupx7nK5XtauXc2cOQtIpzNTPZwJEwSl+SsUikyj1Wm7rb6+HBs2rGHPPfcikxnYoKCtrYlkMvE0sNMTNMezknM08BLgkjAMP1m+lgFSYRh2Au/OZrPfGulDg6CUJAtdW8nn6+N/NHY3hULRuYsp5y6+nLt4c/7iq57mrlDYPf7FXwk2BpzppVCIxvTfpfEMOfcBLxx07f3AW4ATgNF1DiiXzaKeraMfmSRJkjQJrrnmSm677cc7vOeyy67kmGNeMUkjgvXr1/H2t79lh/cccMCL+PKXb5ikEU28cQs52Wy2G1hWey0Mw41APpvNLhv6XbugXMkx5EiSJGm6O/vs8zj99L/d4T177DF3kkZT0t4+mxtvvGWH92Qy9bUkcVwbD0yEoBpyOqd4JJIkSdKOtbe3094+mnNpJk4ymdzuANR6N6aQk81mz9rJ65cAl4zlM0j0V3KiKBqXU24lSZIk1a/p3w+wXMmhWIC+7qkdiyRJkqRpb9qHnCAIKCZLawTve/DJKR6NJEmSpOlu2oecbT19bMqVQs5Pf/3IFI9GkiRJ0nQ37UPO1m05tkWlg4BaE71TPBpJkiRJ0920DzkAncVSyGnP5KZ4JJIkSZKmu3iEnKgRgNmZvikeiSRJknYnS5eexr//+9emehgaoViEnMpytbaklRxJkiRJOzbtDwMF2FZerpYp2kJakiRpKkVRBPkp+j+eUxnPTNQuiUXI6YlK3dXSRRsPSJIkTZUoiuj64eUUn182JZ+fnPdCmv7qYyMKOpdffgnLlz/NDTfcVL22du3zLF16Gtdc8yWef/45vve977B8+XISiYAXvejFXHDBhwjDF41qjEuXnsYZZ7yDBx74A/feezdtbTM555zzWLJkP66++rM888wKDjgg5BOfuJS9914IwG23/ZhvfetmVq9eSVvbTF796pN573svIJMp/Rv4oYf+xPXXf4lHH32EWbNm8cpXHs973vM+WlpaRzXG3UEslqt1l0NOJjLkSJIkTaWAeFVSXve6N/Loow+zcuWz1Wu3334be+wxl87OrVx11RWcccY7uOWW/+aLX7ye3t5ePvvZS8f0mddf/yWOPvoV3Hzzd3jFK47lqquu4POfv4ILLvgQX/7yDaxfv4GvfvU6AJYte4LPfe5y3vWu87jllu9z0UUX89Of/i+33HJz9fULLzyfo446mptu+jaf/OTlZLOP8sEP/mOpqqYhTftKTltLhu4oDUAG9+RIkiRNlSAIaPqrj8Vqudphhx3BXnvtze2338Y555wHlELOqae+gVmz2vnoRz/B61//RvL5IvPnL+C0097EVVddMaZhHnPMK/irv3ozAEuXnsGtt36fpUv/hsMPPxKAE088mTvv/BUAq1evIggCFizYm/nz5zN//nyuvfZLNDe3APDtb9/MkUcexVlnnQvAokWLueSSyzn99L/mgQf+UH2mBpr2Iae5Mc15S4+En/2SBnIUixGJRLz+HwRJkqR6EQQBpBumehi7LAgCTj31Ddx++08555zzeOKJLE899SSf/vTnWLx4H5Yvf5pvfOPfeOaZFTzzzAqWLXucYrE4ps9ctGif6veNjaUuwXvttXf1WiaTIZcrBcWjj345Bx10MOeeeyYLFy7mqKOO5rjjXkUYHghANptl5cpnOOWU47b7nBUrlhtyhjHtQw5AY8sMeoDmIEdvX4GmhlgMW5IkSdPA619/GjfeeAOPPvowd9zxf7z0pQezePE+/PznP+Oyyy7mta99HQce+BLe+Ma/5qmnnuSaa64c0+elUtv/W3W4ClRDQwPXXXc9jz/+GL/73b3cf/+93Hrr9zj11DfwsY99kigq8prXvI53vvOc7d47a1b7mMZZz2KxJydTLtc1BjlyfYUpHo0kSZLiZP78BRx22BH88pc/5xe/+D9OPfWNAHzzmzdy2mlv4uKLL+Wtbz2dQw89nFWrVgJM2n6Xe+65ixtvvIEDDngRZ555Ftdddz3vete7ueOO2wFYsmR/nn76SRYuXFT9T7FY4LrrrmHt2ucmZYxxFIuSSKKhFHLSQZHunh5ojU+JVJIkSVPv9a8/jWuu+Rz5fJ6TTnoNAHvuOY+HHvoTjz32KE1NLfz2t7/m+9//LwByuRwNDRP/b85UKsmNN95Ac3Mzxx13Ah0dW7jrrjs56KBDADjjjL/jfe87l89//jMsXXoGXV1dXH31Z+nq6mLhwsUTPr64ikUlh0wjxXKY7t3WObVjkSRJUuyccMJJABx33KtobS21Xv7gBz9Ce/tszj//HzjvvL/n7rt/yyc+8SkAHnnkL5MyrqOOOoZ//ud/4cc/vpUzzzydD3/4gmpzAYCDDnop11zzJZ56ahnveteZfOQjF7L33gv5whe+Um0xre0F07z13FPAkk2btrHmy+fSGORYf/zHWfKiF071uLQLUqkE7e0tbNq0jXx+bBv4NLmcu/hy7uLN+Yuvepy7vr4cGzasYc6cBaTT9f2P6VQqUTfzFnc7+ns3e3YLyWTiaWC/nT0nHpUcoDco/ZL5His5kiRJkoYXiz05AH1BA0SdFHq6pnookiRJ2s1cc82V3Hbbj3d4z2WXXckxx7xikkakHYlPyEk0QAEKPdumeiiSJEnazZx99nmcfvrf7vCePfaYO0mj0c7EJuTkE41QgGLOSo4kSZImV3t7O+3tnksTF7HZk5NPlU6LJdc9tQORJEnajUzzJlWqM+P19y02IaeYrIQcKzmSJEkTLZlMApDL9U7xSLQ7qfx9SybHtuAsNsvVonIlJ+jrmeKRSJIk1b9EIklTUyudnZsAyGQaCIJgikc1MYrFgELBitVUiqKIXK6Xzs5NNDW1kkiMrRYTm5BTTDcDkMi7XE2SJGkytLXNBqgGnXqVSCQoFj0nZzpoamqt/r0bi9iEnCDTBECiYCVHkiRpMgRBwMyZc5gxo51CIT/Vw5kQyWTAzJnNbNnSZTVniiWTqTFXcCpiFHJKlZykIUeSJGlSJRIJEonMzm+MoVQqQWNjI93dBfJ5qzn1IjaNB4KGUiUnXXDzmyRJkqThxSbkJBpKlZx0ZMiRJEmSNLzYhJx0UysAGUOOJEmSpB2ITchJNZYqORlyHkolSZIkaVjxCTnNpUpOggg8K0eSJEnSMGITchoaGslHpeFGua4pHo0kSZKk6So2IaexIUVPlAYgynkgqCRJkqShxSbkZNJJuqNSf/ZCz7YpHo0kSZKk6So2IaehJuT0dRlyJEmSJA0tNiEnlQzoqYScbkOOJEmSpKHFJuQEQUAuKIWcfE/nFI9GkiRJ0nQVm5ADkAsaACj02F1NkiRJ0tBiFXL6EqWQU+w15EiSJEkaWqxCTiHZCEBkyJEkSZI0jFiFnHwl5HgYqCRJkqRhxCrkFFOlkEOfh4FKkiRJGlpqLG8Ow/ATwMnZbPaEmmunARcDBwLrge8CF2ez2TEnkyjVBEDCkCNJkiRpGKOu5IRh+AHg0kHXjgN+AHwPOBR4D/A3wFfGMMaqKF0KOUG+ZzweJ0mSJKkOjbiSE4bh3sC/AccB2UEvvxv4RTab/Wz552VhGH4MuDEMw/dks9nesQw2yDQDkCwYciRJkiQNbTTL1Q4HNgEHU1qWtm/Na1cDxWE+ZwYwtpDTUAo5KUOOJEmSpGGMOORks9kfAT8CCMNw8GsP1P4chmEG+DDwx2w2u360g0wmS6vqko3lkBP1kQyKBMkxbSnSBKvOWzJW/S2Ecxdnzl28OX/x5dzFl3NXnyYsJYRhmAK+CbwYOH4sz2prK+3FmdE+q3ptZnOCZHPLWB6rSVKZP8WPcxdfzl28OX/x5dzFl3NXXyYk5IRhOAP4L+DVwNJsNvu7sTyvo6ObQqFIMQrojVI0BHk2rV1PcqaJezpLJhO0tTVV50/x4dzFl3MXb85ffDl38eXcxUdbW9MuV9zGPeSEYbgAuA1YArwum83+cqzPLBSK5PNFUomA7ihNQ5An391J1LLHmMeriVeZP8WPcxdfzl28OX/x5dzFl3NXX8a1FBKGYTvwC2AucOx4BJxaDekk3cUMAFHOs3IkSZIkbW+8KznXAvsBpwLrwjCcX/Paumw2WxjLwxszSXqiSsjpGsujJEmSJNWpcQs5YRgmKB38maFUzRlsCbB8LJ/R1JBifZQu/dBryJEkSZK0vTGFnGw2e1bN90VgQttStDSleTZyuZokSZKk4cWqPVlzY6q6XK3Yu22KRyNJkiRpOopVyGlpTNFdXq7W123IkSRJkrS9WIWcZCJBX6IRgLwhR5IkSdIQYhVyAKJUKeQUemw8IEmSJGl78Qs56VJvg6ItpCVJkiQNIXYhJ2hoLn1jyJEkSZI0hNiGnKCvZ4pHIkmSJGk6il3ISTW0AJDIe06OJEmSpO3FLuSkm0qVnFShhyiKpng0kiRJkqab+IWc5lYAEhSh0DfFo5EkSZI03cQu5DS2tFCMAgAimw9IkiRJGiR2IaelKUN3lAYMOZIkSZK2F7+Q05iiJ8qUfsjZfECSJEnSQDEMOen+Sk6vlRxJkiRJA8Uu5Myd1UQPpUrOunUbp3g0kiRJkqab2IWc5sYUDeUOa0+teH6KRyNJkiRpuoldyAGYNXsWAKtXr6PoWTmSJEmSasQz5LSXQk6Q76E3V5ji0UiSJEmaTmIZchKNzQA0BTn6CsUpHo0kSZKk6SSeIaehEnL6yOcNOZIkSZL6xTLkkCmFnMYgR77onhxJkiRJ/WIZcoJM/3I1KzmSJEmSasU05DQB5eVq7smRJEmSVCOmIaemklNwuZokSZKkfrEOOY1BzkqOJEmSpAFiGXIoL1drDPrI5/NTPBhJkiRJ00ksQ05lT04igEKuZ4pHI0mSJGk6iWXIIZmmshOn2Jeb0qFIkiRJml5iGXKCICBPGoBiX+8Uj0aSJEnSdBLLkAOQD1KAIUeSJEnSQDEOOaVKTuRyNUmSJEk1YhtyCtVKjo0HJEmSJPWLccgpVXLIW8mRJEmS1C+2IaeYyAAQ5d2TI0mSJKlfbENOIVGp5PRN7UAkSZIkTSuxDTlRJeQUXK4mSZIkqV9sQ04xWQo5gXtyJEmSJNWIbciJkqU9OVZyJEmSJNWKb8gpL1dLFA05kiRJkvrFNuSQKlVygoKNByRJkiT1i23IqSxXSxQNOZIkSZL6xTbkBNWQ43I1SZIkSf1iG3KidAMASSs5kiRJkmrENuQEqVLIcbmaJEmSpFqpsbw5DMNPACdns9kTaq4dCnwROBLYAFyXzWavGsvnDCVIl5arJaP8eD9akiRJUoyNupIThuEHgEsHXZsD/B/wOKWQ80ngsjAMzx7LIIeSKO/JSUVWciRJkiT1G3ElJwzDvYF/A44DsoNePg/oBd6bzWbzwKNhGL4Q+Chw4xjHOkCQKS1XM+RIkiRJqjWa5WqHA5uAg4GLgX1rXjsO+E054FT8ArgoDMM9s9ns2tEMMpncvuCUbmgEIEWeVCq2W4vqWmXehpo/TW/OXXw5d/Hm/MWXcxdfzl19GnHIyWazPwJ+BBCG4eCXFwIPDbq2uvx1MTCqkNPW1rTdtRntbUAp5LS3t4zmsZokQ82f4sG5iy/nLt6cv/hy7uLLuasvY2o8MIRmSsvVavWUvzaO9qEdHd0UCsWBD80FNADpqI9Nm7aN9tGaQMlkgra2piHnT9Obcxdfzl28OX/x5dzFl3MXH21tTbtccRvvkNMNNAy6Vgk3o04ihUKRfH7QX7pUqfFAOijQ15cnCCwxTldDzp9iwbmLL+cu3py/+HLu4su5qy/jnQyeBfYadK3y86rx/KBkpiZLFWw+IEmSJKlkvEPOb4DjwjBM1lw7CciOtunAcFI1ISfqG7xCTpIkSdLuarxDzjeANuDfwzB8cRiGZwEfAK4Y588hlUqRi8pZKp8b78dLkiRJiqlxDTnlas1rgRD4I6XDQP8pm83eNJ6fA5BOJegrh5xizkqOJEmSpJIxNR7IZrNnDXHtfuDlY3nurkgmAvpIATnyud4xd1DofeDHkOui4ejTx2N4kiRJkqbIeHdXmzS1lZzCGPfkRFFE7v7/Lj33Ra8iMXPemMcnSZIkaWrEtu9yMhH0h5yxLleLCv3f9nWP7VmSJEmSplRsQ04QVJarQaFvjI0HijU90Qv5sT1LkiRJ0pSKbcgByAelkFMcawvpYk0lp+Z7SZIkSfET65ATlUNO17YxLjGrDTaGHEmSJCnWYh1yUg2NAGzavHVMz4kil6tJkiRJ9SLWIaehqRRytnRsG9uDaperFTxYVJIkSYqzWIec5uYmALZuHb+QQ96QI0mSJMVZrENOS2sLAD1d3eQLxZ3cvQM1y9UiQ44kSZIUa7EOOU3lSk4yyrN6/eirOVGxZh+OIUeSJEmKtViHnCCVASAT5HnoqQ2jf1DRSo4kSZJUL2IdckilAUgHBe5/bO3onzNgT84Yz9yRJEmSNKViHXKCZKmSkw4KPPN8J2s3dY3uQQO6q/WNx9AkSZIkTZFYhxzKy9XamwIAss9uHt1zas/JcbmaJEmSFGuxDjlBsrRcrTFZCik9vYUd3T6sqLaS43I1SZIkKdZiHXIqlZw0pZDS2ze6kDNwT47L1SRJkqQ4i3XICcqNB1KUWkCPOuQMOCfHSo4kSZIUZ7EOOZQbD1RCTk9uPCo57smRJEmS4izWIadyTk4yGlslJ7K7miRJklQ3Yh1yKDceqIaccankuFxNkiRJirNYh5zxquQM3JPjcjVJkiQpzmIdcird1YJiaYnZ+FRyXK4mSZIkxVm8Q055uVoiKhBQpGccWkjbXU2SJEmKt1iHnMpyNSidlTPaSk5Us1zN7mqSJElSvMU65FRaSAOkg8L4HAZa6BsYeiRJkiTFSqxDTpBIQCIJlEPOeOzJAbCNtCRJkhRbsQ45QOw7u58AACAASURBVLWak2acKjnYYU2SJEmKs9iHnCBVaj6QDvIUihH5wsiXmkXFQe8x5EiSJEmxFfuQU2kjnaZUjekZzZK1aNB7DDmSJElSbMU+5ATl5WqNyVJQyY1myZrL1SRJkqS6EfuQQ7oBgJZUBIyykmPjAUmSJKluxD7kBKlyyEmXgsqomg8MahkdGXIkSZKk2Ip9yKlUcprLy9VG00Y6spIjSZIk1Y3Yh5wg3QT0h5ye8diTU8iPeVySJEmSpkYdhJxSJacpWQomo2s8MKiFtCFHkiRJiq3YhxzSjQA0BqVgYuMBSZIkafcW+5BTqeQ0JkohZzR7cgafk2PjAUmSJCm+Yh9ySJUqOQ2VSs4olqtFLleTJEmS6kbsQ06lklMJOd29owgoLleTJEmS6kYdhJxyJYdSMNnWPYqA4nI1SZIkqW7EPuRUGg+kyyGnq2c0lZzycrUgWfpqyJEkSZJiK/Yhp7JcLR2VKzk9Iw8oUbEcjMrP8pwcSZIkKb7qIOSUKjnJKAdAZ/coAkpUHPAsioYcSZIkKa5S4/3AMAzTwCXAmUA78CDw0Ww2e/d4fxZQrb4kC6WQM5pKTmW5WpBuIALIu1xNkiRJiquJqOR8AjgHOBc4DHgMuC0Mw70m4LMIyi2kg0IvMNqQU67cpMrL1YqGHEmSJCmuJiLk/DVwSzabvT2bzS4DPgy0AS+fgM+CTCXk5Agokusr0pcv7uRNg9RUcgDPyZEkSZJibCJCzgbgjWEY7huGYRI4D+iltGxt3AXl6gtAA6Vw0jXCak5UaSFd2ZNjdzVJkiQptsZ9Tw5wIfAd4GmgABSBpdls9snRPjCZHD6LRckGCBIQFZnVBM91Q09fgTmpXc9vQbnxQCLdQAGgmCc1gvdraJV529H8aXpy7uLLuYs35y++nLv4cu7q00SEnAOBTcCbgFXAPwA3h2F4fDab/fNoHtjW1rTD1zsyjRR7u5jdHPBcNwSpFO3tLbv8/G1BRAFobG2lD0gFxRG9Xzu2s/nT9OXcxZdzF2/OX3w5d/Hl3NWXcQ05YRjuA3wLOCmbzd5Zvvz7MAxfDHwKePNontvR0U2hMPw+myjVAL1dzEgXgDT//OXfcs4bDuSEw/bepefn+0rL3HLF0h9HX28vmzZtG81QVSOZTNDW1rTT+dP049zFl3MXb85ffDl38eXcxUdbW9MuV9zGu5LzMiAN3D/o+r3A60f70EKhSH4HzQSCVKn184x0/z3f+N9HOfalC3bp+ZXDQKNkpvQ137fDz9PI7Gz+NH05d/Hl3MWb8xdfzl18OXf1ZbwXHz5b/nrwoOsvBZ4Y58/qV24YMCMTDbjcsS23a+8vd1ej2l3NxgOSJElSXI13Jec+4E7gpjAMzwdWAu8ETgaOHefPqgrKISfK9QD9e2meWLmZI8I9d/6AYmHgc2whLUmSJMXWuFZystlskdI5Ob8A/gP4A3AipT06947nZw1QDifJQveAy48/u2XX3l8OOaRKy9Ws5EiSJEnxNe7d1bLZ7CbgfeX/TIpEUxsF4Kglzdyba2HxvBnc8/BzLFu1iyEnqhwG6jk5kiRJUtzVRUPwoKkNgLZEN5edezQnHbEQgI5tvbv0/qi6XK20J8flapIkSVJ81VXIibo7AGhqSALQ1VvYtQdUl6vZeECSJEmKu7oMOc0NpVV4Pb15oiga9n1V0cDGAxR38X2SJEmSpp36CDnNMwGIukp7cBrLIScCenK7UM0Z3EIaoOiSNUmSJCmO6iPklCs5xXIlJ5NKkEwEAHT37jisRFHU33gg1dj/gkvWJEmSpFiqi5CTaCpVcsh1ERX6CIKAxkxpX073zio5Uf/rQaWFNDYfkCRJkuKqLkIODc0QlEJNf/OB0pK1nVVyqkvVAJIpSJS7alvJkSRJkmKpLkJOECQImmYA2zcf2HnIqan0BAlIpkvfG3IkSZKkWKqLkAMQlJesVUJO42hCTiJJkCw3LXC5miRJkhRLdRRyRlfJiaKa5WpWciRJkqTYq6OQU6rkFMttpCsHgnbv7EDQSiUnSBIEQTXkWMmRJEmS4qluQk6idTYAUecGYATL1SoVm2QpFFWWq1nJkSRJkuKpbkJOMGMPAIqd64ERLFfLl8JMkCofBOpyNUmSJCnW6ibkJGbMBSDqWAeMoIV0IVf6Wg43QWW5Wj43AaOUJEmSNNHqKOT0V3KiqEjTLh4GWg0zlYNAM02lr309EzJOSZIkSROrbkJO0DobggAKeaKuLSOo5FSWq5UrOelGACJDjiRJkhRL9RNyEimCllLzgeLW9dXGA1073ZPTW/omWarkBOVKTpTrnqCRSpIkSZpIdRNyoH/JWrR1XbXxQM/OKjnVxgPl5WqVSo4hR5IkSYqlugo5Qbn5QHHr+l1frpYf1HiguifHkCNJkiTFUV2FnP5KznraZzSQCAI6uvpY8dzWYd8TlburVSo5QbqyXM09OZIkSVIc1VXICZpnAVDs3kJrU5qXHbgnAD+5d8XwbyovV+vvrlZpPDC2Sk6UzxHlusb0DEmSJEkjV18hp6kNgKi7A4DXHbMPAL/PrmVbz9CHe1YrOYMaD4y1hfS2//wInf9xvnt7JEmSpElWVyEnMSjkLNqzlT1mNhJF8MxwS9aqlZxKC+mxd1eLooioazMAhQ3PjPo5kiRJkkaurkJObSUniiIA9pk3A4AVz3cO+Z7KYaDVPTk1LaSLnRvovv1fya/JjmwglWYGQJBIjuy9kiRJksakzkLOzNI3hb7qcrPF81oBeGbtcJWcSne1Sgvp/uVqPb/+d/LL/0D3j64Y0TgG7OcJ6uqPWJIkSZr26upf4EG6AVINQP+StcXlSs4zw1Vyqt3VKi2k+8/JKax9anQDqe3MViyM7hmSJEmSRiU11QMYb0FTG9HWdRS7O0jMnFcNOWs2bKO3r0BDetDysUGVnKB8GCjFfOk/IxBFRXrv/Q6Ul8oBRCN8hiRJkqSxqatKDtTuy9kCwKzWDDOa00QRPLdh+5bOUWFg44HqcrVRyK94kL6HfkbfX27vv1gYuqubJEmSpIlRdyFncIe1IAjYY2YpuKzfMkRb6MGNBxKJ6pK3kSpuXrPdtahgJUeSJEmaTHUXcgaflQMwZ2ZpCdqGju1DTn8lJ9P/jMz21ZyopmPacKKeIfb9GHIkSZKkSbVbhJw92sohZ0eVnGRNyKnsy6kR5bZf6rbdPV2btr/ocjVJkiRpUtVhyCm1kY66tlSv7bCSU6nQ1FRyGKqS07Ntp59d7Fi7/ftsPCBJkiRNqvoLOS2zACjWVFXm7FIlJ93/jNrAUxb1Dt2CesA9W7YPOVZyJEmSpMlVdyEnMWMPAKKt66vXKpWc9s5ldP30WorbapaVDbEnZ6jGAzsLOVHvtqHvcU+OJEmSNKnqL+S0lkNOd0d1KVqlknN2w88oPPMnen97c/X+aFB3NYB0eByJ2YtoPOUfSS46uHSxvFwt9/Ad9P7++9t97lBL1cDuapIkSdJkq7vDQGlogXQj9PVQ7FxPctZeNDemaGro/1UL61cAEEURFCqHgfYvV0vvdxTp/Y4CIP/0H0r39nYS5XvpveubpXsOOJZE257V9xS3bRx6PC5XkyRJkiZV3VVygiAYeslaW/8StKivu/RNsQBRVHrfEPtwAILG1tJ7erdR3LS6/xm57oE39g7Tfc3GA5IkSdKkqruQAxCUl6wVa0LOzIao/4a+noFVHBi4J6f2WQ3lkNOzjeLGldXrg1tKD9di2uVqkiRJ0uSqv+VqlJoPFBhYyWlP1lReooioe0vNOwJIDP1HETS0lN7S20mhNuQMOvhzu8pOhcvVJEmSpElVl5WcynK12krOrOTASktx0+pq+2hSaYIgGPJZQWM55PR07qSSUwo5QcvsgQ+wkiNJkiRNqroMOcEQIWcmAysvxc2rifKlKkuQHHqpGkCQKYecXDfFTav6X+gdeDhoVN6TUwlY1etWciRJkqRJVZchJzFrAQDFTSuJigUAZjAwlBQ3PNu/J2eY/TgAQaapdH/neqKuzdXr0eBGA+XKTtA2d+B1Gw9IkiRJk6p+Q066CfK5avWlJSpVcjrSpRBSWLecqFyNqQSZITU0l75uV7kZ9HM55CRcriZJkiRNqQkJOWEYvjMMw0fCMOwJw/DhMAzfNhGfM5wgSJDccwkAhbVPAdBS2ArAqqYXAlDcuLIagIIZc4d4SvlZmeYhr28fckp7cmrPzgGXq0mSJEmTbdxDThiGfwd8A/gacBDwn8B/hmH48vH+rB1Jzt0PgNyfbqP3vu8yp/MJAFalFhM0zoCoQH75H4Htg0mtYUNOroson6v5udx4YOY8Gk8+n9QLjim9UF4uJ0mSJGlyjGvICcMwAC4Drs1ms1/MZrPLstnsZcDPgRPG87N2Jrnn/gBEHc+Te/B/AXgot5BnowUk5parPGuyACQG76OplcpAkNzucmHlX+i86X0UNpabEVT25GSaSO/3MlJLjip9vpUcSZIkaVKNdyUnBPYFbqm9mM1mX5vNZq8Y58/aoeT8F5YqNskMiT33Z2t7yLe2HUtvvkhy7r4D7t1hJScICBr6qzlB08z+Fwt99D36C6Ioqu7JqVR+gmT53B335EiSJEmTarwPAz2g/LUlDMOfAYcBTwOfzmazPxrtQ5PJUWSx1jba/vZzBIkEQaaJJx9fR/eTfyKXL5BZ9GJyf/xh9dZ0+zySqeE/I8g0EfWU9vQkZu5JoeYg0WRLOyny1WVp6eZWglSCKFPu2FbMk9rBs+tZZd5GNX+aUs5dfDl38eb8xZdzF1/OXX0a75DTVv56M/Ap4KPAW4FbwzA8JZvN3jGqh7btoPvZDrVUv9ujvVRp6StEzD3wMDpv7b9r9uJ9SOygjfS25hnkOtYC0DR3Lzqfe6L6WnNLA61NAaXm0gHte84mCBL0dM6gE0hSoL29ZajH7jZGP3+aas5dfDl38eb8xZdzF1/OXX0Z75BT2Yn/+Ww2e1P5+wfDMDwc+BAwqpDT0dFNoVAc08D6cqW9MV3dfWzu6CVoaSfatgmALVv7gOH3zhSTDdXv840DW0R3bekgv6506GjQ0MTmzaUGBPltpWVqhVyOTZsGdmLbXSSTCdramsZl/jS5nLv4cu7izfmLL+cuvpy7+Ghra9rlitt4h5yV5a8PDbr+MPDG0T60UCiSz4/tL10yEQDQkyuQzxdJv+Qkcvf9N8GMuTt/dro/2UeNMwe8VOjtIt/VWb2v8qwCpWYFUaFvzGOPu/GYP00N5y6+nLt4c/7iy7mLL+euvox3yHkA2AocA/y25vpLgWXj/Fkj0pguhY7evtLemcwhrydonEFqwYt2+t4BjQcaBraUjvp6+ttH195XbjwQ2XhAkiRJmlTjGnKy2Wx3GIafAy4Ow3AVcB9wBvAa4KTx/KyRasiUQk5fvkixGJFIJMi86FW79uaas3KCTAvpl5xE38PllXe5mpBTe6aO3dUkSZKkKTHubSSy2eyngUuAy4FHgLcBb8lms78a788aiYZ0/1k3lWrOrqoNL0FjC42vPJPGV58HVCo5paYGtcvaSKZLX4uekyNJkiRNpvFergZANpu9BrhmIp49WulUgiCAKCqFnKaGXf/VByxDy5Q6pQXlQBPluqsNDBLN/ft1gkT5+VFEVCwQJLY/UFSSJEnS+NttGoIHQVCt5vTmRlrJ6a/QVANPprH0ta+HaNvG0mutNZ3XKpUccMmaJEmSNIl2m5AD/ftyRrpcrbonJwigHHiqlZy+HoqdpZCTaKkNOTWVooJL1iRJkqTJsnuFnHIl59EVmygWo11+X7WSk2kmCEp/ZEG6VMkpLVerVHLm1LwpAZTaVkdFKzmSJEnSZNmtQk6ljfR3frGMO/64ctj7nnl+K7f83+Ns7SqdbZpo3xtSGZJzl/TfVLNcrdi5oXRfTSUnCIKaDmtWciRJkqTJMiGNB6arYtRfvfnBb57ilCMXDXnfJTfeD0BPX4FzXn8giaY2Wt9xLZSrN9C/XA0iyJfCUNDaPvBByVQp4LgnR5IkSZo0u1UlZ+W6bdXvi8WIfGHHp9quWtdZ/T5oaBnYIS2VKe3RqWhoIUg1DHh/UG4+4IGgkiRJ0uTZrULOyUcurH6fyxd537W/4a6H1gx7f/MO2kwHQTCgspOo7axWvVh6f3Hz8J8hSZIkaXztViHnra/an0vOPoqD9y81COjLF/nvXz854J7u3v6qS1Njmh0Jag7/DFqGCDmp0vt77vgKheeXjXbYkiRJkkZgtwo5Dekki+fN4NAX7FG9tqUzN6Cl9IaOnur3Uc0enj8/uYE1G/qXuwEEmdpKzhwGS4fHV78vblo9tsFLkiRJ2iW7VcipOO6QBXzo9EOqLaVXru3fe7NhS3/I6SlXdZ5a3cEXvvsnPn7D7wY+qGa5WnL+Adt9TsOhbyC131EAROXmBJIkSZIm1m4ZcpKJBAftN4cDFs0CYMXzW6uv1VZyunpLFZ4nV28Z8jnRtk3V71OLDxn6w1KZ0teCIUeSJEmaDLtlyKnYZ34rAMuf6w8562sqOZ3dOR54Yh3buvvPuSkU+zuy1Yac6oGhgwTJUsixkiNJkiRNjt075MybAcCylVuq+29ql6ut29zDv37vIX541/Lqta6e/sYEDUefDkDjyecP/yGVSo4hR5IkSZoUu3XICRe305BO8tzGLh5cth6ANRu6dvie2pCTPvh1tL7zS6T3e9mw9wepSiWnl+LmNWz770/Q9/hd4zB6SZIkSUPZrUNOa1O6enbOj+5aztauHCtrDgAdyraakBMEAUFj644/pHJAaD5H121XU9y4kp5f3TCmcUuSJEka3m4dcgBOPLwUcpY/t5WHn94IwII5zcPe39XTN+xrQ6lWcnLdRFvXj3KUkiRJknbVbh9yZrVmSCUDAO595HkAXrJkNpn00H80tZWcXVIOOfkVD1QvBQ07qf5IkiRJGrXdPuQEQcDMltKSsj8/uQGAA/dpp6khNeT9o63kUOw/cDTKbSOKisO8Q5IkSdJY7PYhB2DWjMyAn/eZN4NkIhjy3tpKzjPPb+WbP8uyZdsOOqdV9uTUiiLyy+6lsPFZeu6+ha7//RxRcYQVIkmSJElDGrpcsZuZ1dIfRFLJgFkzGujNFYa8t7a72qduvJ8IyOULvOsNLx7y/iCVHvJ6zy+/PuDnwsqHhz9QVJIkSdIus5IDzGrtDzlzZjaRCAJ6+4ZeTratvFwtiiKi8rWVa7cN//ChKjlDiHLdu3SfJEmSpB0z5AAzW/uXq82d1QhAvjB0yKlUctZu6g8lrU3DF8Sqe3J2xsNCJUmSpHFhyGFgJWfurKYd3lup5CxbtaV6bcu2HTQjGBxy0o1D3lbs2fH5PJIkSZJ2jSGHgY0H5s4shZzDXrjHkPdWKjlP1oScjR09wz57cCUn0TZvyPui7i1DXpckSZI0MoYcBjYeqFRyzn79gbzztSEfO/MIUsmAJQvagP7uaivX9+/D6erN0907THe0QXtyEjMNOZIkSdJEMuQAs2b0B5H28vetTWlOOGxvXrD3TP71wuP5h9NK3dO6ektL0zq7Bi5R27i1d8hnD67kBA0tQ94XdXeMbvCSJEmSBjDkAC2NKZrLh3/utUfzdq83ZJLMaC61gu7uLdDdm6/uzamcpjPskrXkoJCTGXrPT9RlJUeSJEkaD56TAwRBwJXvfTmFQkRjZug/kpbGNLNaM2zuzPHs2k62dZeWpy2eN4MVz29lwzAhJ0gMzJHpg08l/8yDFDetHnDdSo4kSZI0PqzklLU0pmlr2XG758XzZgDw+LObKUalU3IWzWsFdtx8oFaiqY2Wt32G9IEnDLge9XQSFYfZ1yNJkiRplxlyRmDRnqVA8+iKTQBk0gnmtZeWn23eOrJzboLM4GVxEVH31jGPUZIkSdrdGXJGoBJyHiuHnNamdPWMnc2dpcYDURTx9R8+zE0/fWzHDxuiAYFL1iRJkqSxM+SMQCXkROWfWxvTzGwtLXGrhJxNW3u595Hn+fWDq6tn6gxl+0oO9D32Gzq//f/IP/dE6XPyObp+chU9d98yjr+FJEmSVN8MOSMwr72ZTKr/j6xlQCWntFyttpX0pq07OCR0iEpO3yN3EG1dT/dt15R+zt5JYeVf6PvL7eMyfkmSJGl3YMgZgUQiYP7s/gpMbcjp7O6jL19k84CQM/TZOQBBQ00lZ1Cbafq6Acg/+1D1UlQsjGXokiRJ0m7DkDNC8+f0h5PWpjQtjSlSydIf45bO3gGVnO0OCA2S/d/WLFdLtM7e7nOiYoHCmpp9PX271r1NkiRJ2t0ZckaotpLT2pQiCAJmVffl5AYsUduurXSiJuTUVHKC1jnbfU5x/YoBwSYy5EiSJEm7xJAzQrWVnJbGNACzZpSWrK1a38n6Lf1hpLpcLVm6L7nnfv0PqtmTkxgq5GzbNODnKGfIkSRJknZFaqoHEDcLZveHk9amcsgp78u56afZAfdWQk7zmy6m7+GfkzniTdXXgoZWknsdCEFAMMRyteKWNQMvlPfpSJIkSdoxQ84I1S5Xq5jVkhnizv6Qk5yziOTxZw94LQgCmt7wEYAhu6cVN64a8HPUN3wTA0mSJEn9DDkj1JDp31czu7xMLZkMhrx34w5aSEMp6AAE6abtXituXDngZ/fkSJIkSbvGPTmjcNHfHc47TjmAF+3TDsCxL11QPRS0Vndvgf+58ymKUbTdawNkhgg5mwaGHLurSZIkSbvGkDMKL1w4i5OOWFitxOw9t5Vr//FYPnzGodV79pjZCMAP71rOspVbdvi8YIiQw6BgFLknR5IkSdolLlcbRy/ZdzYXvOWlzG5rpK0lw0evv5t8IWLVuk4OWDRr2PcF6cadPtvlapIkSdKumdBKThiGB4Rh2BmG4VkT+TnTyWEHzGWf+TNon9HAyUcsAmDNhq7t7huwhG2IPTkVQdPM0je2kJYkSZJ2yYSFnDAM08C3gJad3VuvKmfqrNk4MOT05gpc9LV7+MoPHgIgyAxfycllSiHHSo4kSZK0ayaykvMpYOsEPn/aW1AOOc9t2Dbg+sp1nazb3MMDT6ynGEUD9uQELQPPzHm6o7Si0JAjSZIk7ZoJCTlhGB4PvBv4+4l4flwsmFMqYm3o6KU3V6he39yZA6BQjNja1Qep/kpOYtb8Ac9Y31c+l6cccqJ8L4V1y4l21rFNkiRJ2k2Ne+OBMAxnAd8ELshms8+GYTjmZyaT8WwCN2tGAzOa02zt6mNdRzf7zm8DoLOnr3rP1q4cc2Y2QqoB8r0kW9sppDKQLwWhdX2NpVnK97C+o4f87dfSsjFLyynvJf3Cl0/Fr7XLKvMW1/nbnTl38eXcxZvzF1/OXXw5d/VpIrqrfRW4J5vN3jJeD2xrG35j/nS3aN4MHnl6Ix3dBZKZNP/5f1lWreusvt4XBbS3t9DR2Eyhs5fGGW3kM40UyyFnY6FUyUkW+7jxJ4/xno4sAIXsr2l/2cmT/wuNQpznb3fn3MWXcxdvzl98OXfx5dzVl3ENOWEYngkcB7x0PJ/b0dFNoVAcz0dOmrnl83KWPbORH/xqGU+uGnhmzrNrtvDCvWYQlZes5YopSKSrr3cVS4eM9nVv49HlG6G8ZaePDJs2DdzrM90kkwna2ppiPX+7K+cuvpy7eHP+4su5iy/nLj7a2pp2ueI23pWcc4B5wOBlateHYfhP2Wz2JaN5aKFQJJ+P51+6ee2lSsw9f3mO5zdtf6Dn+i3dpd+tfFZOMdUEyf6Q0xuVvo9y3TQn+pe5begOaI7Jn0mc529359zFl3MXb85ffDl38eXc1ZfxDjl/Bwyu9T0BXAx8Z5w/KxYqHdaGCjgAm7b2Av0HggaZRkhlqq/3VEJOXy+zgv5mdZ1ddluTJEmShjKuISebza4afK1c0VmbzWZXjOdnxUUl5AxncznkJBe+hMK6pwnm7k/Pw3dSiTm9VEJOD3MS/Xt5Ct3Te6maJEmSNFVsIzHB9pg5sLA1OPRsKreTbjj0jbT+/Vf4+VPw7WcXAvBE37zqcrWgmOedrXdW3xf0dVEobl9SjXo6KXasHdffQZIkSYqTieiuNkA2mw0m+jOms0Ri4K8/r72ZNRu6qj9XlqsBBIkE3/3lk8C+bNjSyprCLPpI0Z2eRVPfZjJB/1k7jfSyZkMXC+e2Dnh+10+vobjuaXpO/CfuX9fCSYcvpCGTnJhfTpIkSZqGrORMgpbGUpbcZ/4Mmhv7c2UAdPfmWbm2c9A7AlYU5pIjTUTAJWtP5aHEiwfc0RzkWPHc1gHXonyO4tqnIIrY8PMb+e9fPcn3f/PURPxKkiRJ0rRlyJkEH/qbQzkynMsFb3kpB+7TXr1+xIv2BOCHdy8HoLO7b6i30xNluHH9YfRG/QGpKcixcu3AkFO7TG3vYB17Jzfyh8dduiZJkqTdy4QvVxMsWdDG+W8uHR308oPm09Wb54CFs0gmAn7/2Fr+8NhaVq3rZFNn77DPKJDkss1v5pT9Crxq0/dJBhGbNg48c6e45bkBPx+QXsMfCvPH/xeaZMWOdfTc9U0yh7yO1F4HTvVwJEmSNM1ZyZlkiSDglCMXsc/8GSzcs5UjwrlEwI/uXs7Ta7bu8L1boyY6ZoVEQWmPzdYtg0LO5oEhZ0lqHb19BaIoItdXoBhF4/q7TJbuX1xP4dk/0/3jK6d6KJIkSYoBQ84UO+0V+wJw/6NrueMPK3d6f2tTBhpaAJjR+Qzrb72KbU/cD0BxyxoAeuaUDmLdN7WO3lye3z60hgu+eCcf/eo93Pvwc0M/eBorrl8+1UOQJElSjBhyptjieTM49AV7EAEd20rtpHfUjq6lKU2isRRy3tH8Gxqe/wtrf/1fAGx8tnQU0fMzX0ohCpiZ6KY9sY0bf/IY+wfP0rd1I9/5xbKJ/HUmRrGw83skSZKkMkPONHDiEXtXv18wp5mFe/a3hQ4XzWKPmY3Vn1ub0gTl05ahZgAAIABJREFUSk7FHsV1PPzUBpLbSk0G7lqVZnWh1OBgv9Rajsg8xXtn3MF5M37Blm05unryAOT6CqzZMLWHika5Lrp/eQP5lX+Z0nFIkiSpfhhypoEX7zu7+v0h++9BuHhW9eePvuNw/unth1V/bm5MESTT2z3jJz+9h5ZEjkIU8Mc1AY/17QXA0Q1P8pq2UvVmUWojEPHcxtI5Pdff+jAfv+F3PLpi00T8Wruk9/c/IP/EXXT/5KopG4MkSZLqi93VpoFEEPCxvzuCex95jtNeuS9BAMlEwMsOnAfAnLb+Sk4AFJ5/ovrz5mIzsxJdLOnLQgqeL8ykjxR39x7AyU0PE6bXQLH/s9oT23hu4zb226uNB/9/9s47PK7yTPu/U6Zq1HuzZdmWe+90U00ghB5CEnZDerIJ+bKbkM1+H1nSdtmQbMKSHtLYEEJoptnYGGzjjnuTZVlW79Joejvt++OMpliSCxiXZO7r4mJmznnf886Zkee53/t57ufYAACv72hLs7Y+GQzDQOuqRyqegGB1vOf3rg91nvx6Sorj3Cjk7qRjDQNBuHB70YbX/xoj7Mex4isIQma/IYMMLlSYzpUCYm7p+V5KBhlkkEEGp4kMyblAMKkql0lVuYnnH756cuKxKArcsLialm4/U8fno825idjulWyLTmS8SyFPaWO+tQWAdq0QgDlzpyAbc9Fa96Rdp1Ia4jev1NMeb0BaJ3dznW89uq8cMafklOtUm3cSeeOniLllOG97CMHqPK33p7TsBkPHMmFh+oFT1NsYQXfKs1MTFsMw2NXQT7ZdpGrXYwhWJ46bH7zgyI4RDaIe3Ww+9g8gnMa9PxtQ2w+AICBXzTwn18sgg4sdhhoj+JdvAOD65K9HVdIzyCCDDDK48JAhORcJUkmPNPcDCCUTqRGqqDz+ElpDG8WSaT8tFY3nKx+Yw6zaAnRPNqETSE6FNMRBpZrXd7QDcJX9MOO0TpTGrdgWfOiU69A6DwHmzmZk05M4rv7sKcfoYT+RNY+ZT664H62vCdslH0WQrRgpJMcw9BGKhh5IITlaDEPXEERpzGsdbh3iZy8epED08628NnOOoS6kgsoxx5wP6N7exGNDHbs/0tmEoUQJr/ohAK5P/ALBYj/FiAwyyMCIJusWDSWSITkZZJBBBhcJMjkyFyEE2YZ13GwmVxcg56enTxTU1DF7YiGCICDlV+C89SGkimlIlTMAqJTdaeeXSWavHd3bg24YvLm7g46+AC9tbmbNOyYR0j09xA6uxdA1tMG2xFit9/Sc2tSeZHpdZONvUY5sQBlWMTQ1eWI0NGJsupIDKJGTXqut1yR7WUKSOGidF56pge5LITmjvO/3A0YseR0jfPKeTBlkkEEcqf9GpT7OIIMMMsjggkZGybnIIeaUJR7rBmRXTkg7LpXU4rz5QdSOQ4Q7DzFZ7iFPDOLRs7CiUCiZaWvKUDf7Dvfyv2uOpo1fMrUY8fmHQI2BIKAPtieOGaGhRN1LdOcLqC27cN78DQS7K20OtTt9TgAjal436vdiHV5/xId0wlj9BJJjKJER7nKp6I2bKmSJSZKjdh7GOuuGMcecD6QqOcTC5+SahpK8jhHxQU7xObluBhlczEhTWtXY+VtIBhlkkEEGZ4SMknORQ6qYQtRVjkd38mZkBiXFBaOfVz4FsaCKLDHGJ3M2cl/WRn5Q8OfEccPby/6mgRHjevZsSPywR3c8B5oCUpyWaGqCrMR2r0R3d6Ac3TRijtFIzpZ97bi9YaSYL7mGUdQF3ZPevNQ4hZLT4zYD+TQlp+tIumJ0HmAoUWL7Xkuk36Wlq8XOjZJDLHnvjLAPVdPPu4V4Bhlc8EghOUaG5GSQQQYZXDTIkJyLHILVif22b/Mtz528LS0jyz66OCdIMo4bHgBJZpzYzwJbS9pxUQ1z8EjbiHGO4+uTT+JKgFhSi2DPBsAIDqGHU4hKnEwMBwN6LILWn34tAMXn5unV+5GMZE2OFvKNOC9VOTIHmoG60rwLpeHt5HnBIaI7nyfk7gfAJaTuvkbR/X0j5jYMY8Rr7xeUw+uIbn+G4F++jmEY5yldLank6GEfP3/xIP/26+3sPtp/Tq6fQQYXI9IcHrUMyXk3iO1fRWj1f2NoyvleSgYZZPB3hEy62t8AXA4Lj37hEqwW6aQuYmJ2MVLFNLT2A6MeLxZ9BHQ7ggCGAVYUcmNxJUWUEk5orzQ7WepyUIAfIziUXpgb8aO27CG85jHsi29DU4Ogj1RRcsUwnoE+SKnh9XuGsMUfb3/lRaydu5kkdJgv2LIgGsSIRTB0jcja/wGg11JFVe0ElEPriO19hfn6dDpYSIEt/cfUCHkhrwJdNxBFAbcvwnf/uJNLZpZz51UTAdhR30t96xD3XluHRT67/F/tbjAfaCpa277zouSkpauFfexpND/Pte+0M78uk7qWQQajQrnwlBxDjRLd/L/INQuQx88938s5JaLb/gKA2roXS+2i87yaDDLI4O8FGSXnbwQFOXZcjlO7/sjjxv5B/GjWZpYUB/jJPaX8131TqJLdiBgYjjxsi+8GQeR47hLeCE2jO2ReSw8OEexJKkCGf4DYobWAQWTH8/h2vw6A7bovoacIJzliCEs0PT0t5DGbkuphH9O7XmSSYM4r2FyIeeXm/EoEI+RJjHny+S00dXrR/aYaUSgFyHFaKLSnEysj5GHdrg4+/YO3ONTs5lCzG08gxrbDJonTBlpY/9oaNuzt4q3dHae8j2eMlDS76K4XIZUYniHJ0fqaCD7/LaI7nx+RvqeHfWh9TaMPjKWTnGHI0oVlr51BBhcSLsSanNjBN1Aa3ib8+o/P91JOidRNME7ijJlBBhlkcLaRITl/Z0jd9dsfq0ZzlSCPnwdAseTnXu15jNd/gP2tH7K00AyEW5RCLLOux3X/L1kZXoiGhEc3++MM9fawa/vexJx6YOCEFDMBx9K7GMyZSr2StHHOFcNkkV4PEguYTm+BXa+mvS4WViftjpUIRoqtdKEYYPX2tgTxKRF93JO1lalqQ9ocamCIP609CobBfz+zj654LYrbFyUcVQg9/+98PnsdhaI/0UNoNMQUDX9o9EDHMAwMQx/1WKpyow+0pB88w3Q1pWkH+kArsd0vEd36dPL6apTgU18l9OJ30Ia6Rq5vDJIjSZl/BjLIYCwYF2BNTupGz4UO3ZdMhxVOo9dZBhlkkMHZQiZd7e8MoqsQ6/wPEfF7Ka+7lbzKPDR3h5krLQiJVDYj6GYJWwE46Muhd2cHjR0eWnpM9UXMygcN9u4/Ronkh/gGnT7QmriWY+nd5E+dR9hZSfPeTn4TuBqXEOF7+X8lW4wkevsMQwv5iCkqWuOm9C+mZEUXzVeaWnupGZ/cDSyS/Kxv96CXmCpQheyhQksGAEEhiywjyFubD3GZLYs7nO/wM/+1NHcnG6+uWb+Pq+OPiyVfggCNhkee2kPXQJAffOGSNOVMD3kI/vXfkMfNxbH802ljDCV60qDkTJUcI+xNPNaGkqpTbPdLCYtbfagTKb/ihHUkSY4aTCE5YibwyCCDMZGqll4gNSWpvXqGHS4vVOi+ZD3kueoJlkEGGWQAGSXn7xK2hbeRu/wfqa3MA0AqqML5gX/BeeM/k3XvD7EtvSft/Fa1iD+va2Rng7kj57TJTJtmWlUXSgEqpKER12gTq7HPvxl7ZR0ALd1+QCBg2FEN82s3w2IG6F2quQ497OfR376FrATRDIG3wtMBcFdfQX2nSQR2H2pn8/bDiesUSX4C4RiK/4R+OsPriJpkxqkHuStrB6JgcL9rPUfbk6Sj4WB94nGuEKatN0BU0UbMpek6LT0+oopG14BJhEIRM+hRW/ZANIjauBk9kk7eEiYDtizEvCTxEHLNHkdGLESsfj3+338ere/4qO8jFakudMOqlmEYxA6tS74eGalGpSo5WihJlHzBGBv3deEbQ6HKIIN3A0PXCa993EzPvIhhnFCTo/v6iO1bdX4dG2Vr8vEpHCfPN1JJzoWS7pdBBhn8fSBDcjJIg+gqxDLjGsSSWgAi1nxa1aK0c+bXFVNebaaeTbH04BRjeHQHipH8Ou0NFPOZ/3qLLfvNtKnmnmHlQMAbT3WrjjcmPahUm4ciPuwB8/xeLZcXwwv4xtCH+fYqH70Bs6DHJqiEhpLpD0WiH4cQQ2b0gKNLywcgR0wG+E4xuRsroFMuJQlPvhRA0w2au0Y6vfmCCsOGbJ5AlNe2tfJPP36bnUf6MFKIjda2L23ccKqallXMvkF74nW5fCoAfo+X6Nu/h1iY8JrH0H39GKOYNQwjNdXMCHkwdN1Ud1KCHSMycv2pFtIxv/menUKEooFdPLXqAC9vbhnzmn8vMAwdPTB4VucMRRTW7er4mySRhhJJc1dMhdZ1GLV5J7GLnOSkBeZKlODTXye6/S+oTdvP35pSnCGNyIXd2NfIKDkZZJDBeUKG5GQwAoJkIevWh3Dd/ysiNz5MLMUC7aZl47nlshrEnJK0MVujk7EIyXqULdE6IjGNP69pQNV02npNZeFTN0/Dkp2fOE9DpO7y6wEolzzUWboB6NAKuOXSCUh2F6pmJGpyKnJF8sRkOlmx5CdPHDvdq0szVaJhQjUMlxAmTwzycN5z3OrclXi9ID53kpQlMeRP/kC39Ph5dr1Z4P/GznZ0b7Kfj9qyJ23csJLTFc2iJZpMk9NLTJUr6EsnLcGnv0ZspxkY6rqBpqfX+aSmq2HoGCFPWt67ec7I9aemqzmMEPOtzXwsazP3urZyq3Pne+6ZEzv8Jv7ffR6t99h7mud8IrbjWYJP/TNq234Mw0Bp2Y0eHKlUngl++9oR/rT2KL9ceegsrfLCQfDpBwk++eX04vI4UtMwDX30WrWLAamBuXJsS+Jxqg38uUZandAFTnKGTWHgwqlpyiCDDP4+kCE5GYwJQbZSWZKdeD6+LJs7rpxIUa4DMbcM65wPxE+UyJ93DYclM71MWnwPN1w6BYCWbh/v1PehqDo5WVaWziijcFxtYk5Lfjmz5s9Cz6tCEgyutB8xD+RXc9OyGr7/maV89pYZXLnQHFOeI6WRGrugjJouN4zuuJJjF9Jz6Wvlfj7k2EVuisIDUGd3M9vSSnuPlxPhCSQDi9Xbk45yukE6yek4iKGn9P/pORZfS15CWdIkO4eGHAC4hJHpJrG9r6CoOt/89Ta+98ddiZ4+hqEng5q4U5ERdKftlgK0tHQRjqoc6/SiqGaAmZquBvAPrreZYe0E4FJ7IwPeFKVH0RKpeKeL6KY/ghIm9OoPzmhcKgw1NmKd5xJqj9m4Vus7htr8DpE1jxF64eH3NOdwH6L61vdGli40GJqaINyj9cIiNZ1LOX+f6XtGikKaWnPIOeyzNQKpqu0oTZQvJGTS1TLIIIPzhYzxQAYnhSgIXDqrjC0Hevjw8klpx2xL7kYqqwPJwnVVMzCW1qF7e5GKa7gF2HNsgNYeP0+vawRg1oQCREHAuvA2lCMbAJBKzTntdZcQ2/FMYu4rr16KLItYZJEl00uJHXISBQqdIJ+g3Ey3dI65/gEte9TXP5R3mCJtZIPQfGOIT2ZvoLm7kc27XEybWEpBXhaQruSkonswgK4lSQ5qlGdf3Mgdt12FoEbROg8CsNldQrviZFe0hlDuBOqPeJkKOMTRycTq7a30DYURMBhY/Qus3jaiyz6NIx5ciUXj0fuOowfciUBCl2yIWpSQx813/7iT7sEQ18yv4qPX150yd9/ti6AbBhjwf3+zHVU3+O6nliAKIJ+JA5saxdA1hDgJ0/0DIEqmWUUKet0hfvnSIW5cOp5FU01lMLTye+iBAVwfeRTB6jj9a54lDJNF3T+YSFu7mJysziXSFEVGBvyp9uZGLIxgyzoHqzr7SGsGmvr6KOrVuULavb2AlRzD0DGCSRU9k66WQQYZnEtklJwMTomPXz+F//jsUqaOzx9xTB4/F7lqBgCC1YFUXJM4NmNCAZAkB7MmFgIgOvNw3voQ8sQlWOfeBIBl0pJkDwXZilQ0Pu06gsUMeMWIN1FfM2xJvdDWPObao1gwZFviuWmXLSQJTs1isDpHjJsgdlG0/TH4y5fpfvMpIF3JSb9IEOKpObECs7Gov7We9t4AasdBswFoVhEtERcaEn8MXsFz3dU09p58V3PNJtMQ4Wr7Iezt2xF93exdaa4lJtgRs01iYAQHEykhRyPmPXcJEboHzTWti/f9GVZI/hxYRoNSNuJ6mqbjDcQY8IbpcYcY8IT53KPr+fJP3mbAc/KdeMMw0npgaHFFxIiFCD7zrwSf+dc0dQvM5qstPf5EXyJDiaAPtkI0mGa5fa5gxMKJND8jMIAgJ+unxqo7OR0IXLypWieDkWJeMWq6Wor5xflU594rxgrMz1UT31GRQrz0C1nJUSLpildGyckggwzOITIkJ4NTwmqRKMkfSQROhVm1hYnHgpAkPQBSSS2Oaz6fqO0RXYU4b30I+/LP4Lzl3xBOIB5iQRUAel8TAga6xUnpomtHv7BsxX7DV3gh9x+4bFY5Ul4yoLfMuh7LdNMwWsgpxbX8k2Td/X2yPjayqV6F7MEiaLiOrWHzzmPManmSL2avIV80gzerLFKYY6NYMgNgwVXIcc1sWlojD9DQ7kE9tg2AftcUQGBGTT7FeXYMA2LIaCl/gt1qHlsikxPPSyUvLiHMBxzJPkTL7Gbqm0+3I7rM+6kH3Ghek7S1qMUAZIsjVRs1Ygai3Voeu6MTRhzPF4MMeiN0DaYHb5GYRkP7SDVjR30vh5rj7m4RP6SQmFirab6g9jWbtrtKZERK0/B1OgeCBMIKkaGUAuXTqIPRg0OJ9LLR0O8J0zd0+oFoalqNHhjEiCaDdH1obLXwZIjVr+eR/KeZJPdgs/5t/XObRnJGc/NLbXh7MaerjRGYG2fY3+pswjiVycgFghPJbUbJufAwllKZQQZ/C8ikq2XwvmF6TT7/dNdctuzrZFJlLll2y0nPl4rGj1BwUo/Zln6Y6La/gGzFufxT5FRMI7D3D4lzIgvvI0cbQp60DCm/gvviU+mez6H2HEUqHIdUPAGpZCJirtkEVbDYECy2tGu9qc5nnnCEfCkZxMze/V0Ayi3w9ZxX2BSdwqGcy3Bl2cjrNAN9v1zA1t4sptpgotzL7mM7Uf2mqcEedRJgMLkqj+J8J+v3dAICumRD0sxAQK6axrzLP4609WdoHQcpkXzUyn3Igs6g5iJPDCIJ5q5oSHBwdFCgBlAOrk2ss0swbamdQhQRHT1Oolp6fDiDQRwClJcVMjgw8h6XSl4GvGE8gfSgzoaC2tWAMaMUQTTn6xwI8ot4If2vvnYVwgmOZG2HDzF1GXg7mxm+u1ve3Mg7op8v3zELiyzR2W8GwcWxDv7tsTUsKYvwwfi5eujUJCe89nH0vib6L/kXJsyYkdYrJKZofOcPO4kpGg/94yIqikZPlWrp8eGwypQWONP7eQSG0B3Jm6QPdUHFtFOu6URE3/49NgG+lLOGsGElusuDbcGtZzzPhQg9nE5y9OAQ6rFtWKZdiWB1phOf86l6vEcYY6R5GhE/Wu8xxKLxaX1rzs2aUo0Hxm5efL4xQu06RUCt+/rQPT3I42a/j6vKYBhqxyHCrz2KdfFd2OZ+4HwvJ4MMzjr+trYWM7igIAgCNywdz1funsOKJePe83zW2TfiuPkbZN35XSw18xGsjnj6GVjn3kzRvOXYFt0xogmmmFeOdeqVSMWmeiHIVqyzbhjhEOe44QEss1cw/pq7eVW6DtVZBPaRNT1OMcb1jgMssRylvCCLKXFHuPVdLhpC+WiGQIEU5Fr/SsBArpnPO71mX4tJVbnMqEkqWkZhUlGpmlBDSb4TMc9Ug8okD5fYzHqm1eHZHI6n5wEMxqy8Xj9ydzzkrMRAQBQgS0gGFN/+/TtYMcnLPTfO4jP3Xj1ibKnoZdAXSTRDvXJeFbNqC7k9awfzW39PePWPMGIh6lvc7G9KEoBedyhRv6IaZspavtLD3qP9KAPtifOsg8c41OzmSJsHTdfpcQeZJPfwQM7rfMy1ibA7VUkZve9R4njIi94Xd7dbu5ndR9NZW1Onl0BYIabq/OaVwyMc6gD8oRjff3IXjzy1G8Mw0t2yDA29P9mzSB/qOul6UhFe+zjBFx4e4STlEGLEdr2I2nl4jJGm8UJ0z8to7nenHJ0u1u5s5+HfvYMv+O7Th9LT1QKE3/gp0e1/IfL2HxKvJY5fxOlqjKE+6P3NhFZ+l+imJ894yvDaxwm98si7d51T39+aHG2gBaVl93ueZ6SSc/LvW/DprxNe/aOL2qHxYkJ41Y8AI60eNoMM/paQITkZXFSQK6amkRP78s/gvP1hrIvueM9dv+Xx87AvvYe5U8r4/GduI/9jj+K47p8AiAgO/tt3I19xf4zXQnMAmBN9hwUTc6izmKYD9UoFEcOKe+ZHaFAriBgWooZMZ8U1DPqiiIJAbUUO02vyyc+2Ma7URe51n4F4QbZYVGP+P9dMr1tur6dQChA0bNQLE9karUusNWpYOKJUsCo8m2DVEgKu8ayPTMOZm49gdwHgEiOI6CyzHaVE9CVUoOycHApKihLXHUal7Ob5DU0UNK9lqbWRxTNKuWx2OTPjTVu1joN0v/IzfvD0Hv76VlNiXHt/ACNOchq0ShRDxCkq7NlzGNHTkTivVu5DRCcYUej3RFA1g+nxuSfJvZRIybSbwKBZYzTkj/K71+rpdafvCGtdyQauxaKPt/enk5Ajbcn0upYeP199fDP/89z+tNqiHncIVTPwBGL4QsoIh7rUWgJ9qJPQ6v8muPK7GCfpeq8H3KjNO9H7m9G6jox6TmTHc2OOj+1bReyd5wg9/1DitYPHB1m/9+yRnmhM489vNNLa62fzge53PU+qIUPY50GPB6bD/WNOtybH0BSCz3+L8Bs/S7x28Pggjz27H7fv/De6jIZPTtCUho1nNJ+hRFGbd6J11Sf+bs4UaUrOWa7JMQyD8Os/IbLmsUStn2EYaIPtJ+3fNSpOVHJOQnLSHClHc+vL4OzDGNn0OoMM/paQSVfL4KKGYHWMmeJ2NiCXT8HxwX/Fp7hoeaoBgA3KLC7XG8jGR9baB0EA7NlMqp7JjdX51M4soyd3Ft945RAiBrV7zUBtXKkLu9X8k/v+Z5YiCgKyLOL68CNo7nbkctN2W6qYioGAEHesylrwQf59ymWs29kGjW+a60JDR2R1eC694SIqKrN4ta2Vq3PtiOSiR/xkCxGm2ru41bmLQc01fMfAYkMQBMTcMvS+Jg7FKplh7WSapYvF1iausewGC6BdgttRiEtMBlTZAwdZaM1jZ6yWWrmXqGGhoy/IXKsZrPUoLrIooEYeQHS3YJOT6ohDVJgk9+AL1CVS1SZbzOOyoDPTklR9Yj5zvlXbWnl7fzeqZvDpD05PHNc6kz1niiQ/XbKIqums2t7G/MlFNLQNYUFlWk0B+1t8+EMKexoHiMQ0/uWeuQiCkGaZve/YALXtrSS7GKVD7T6aMBDQuhuQq2aOep6WUiOktu8f9RylvxXD0BGEkXtMCfIWD/gUVeenLxwkqmjUVeWNmXZ3Kgz5ozjtMjaLxM6GJJmLKqcf5HiDMXKclsRmQqq7WuOxTqZZ088/XSVH6z2GPtCKPtCKoX4KQbbyo2fMmi6X08L9HzjzNMGzhV53CD0UwpL6Ucm2EepOW6+fcaWjOzmmQvf0pPe4CXkgp/iM15WaQhfzD3E2feuMsDdRE6f7BxGzi1GbthF585dY530Q26I7Tn+uM1By0giffG7T/y4WaH3HCb/1K2xL7sZSM/89zZX62Qg210nOzABAadmN1nEI2yUfQRAzofPFgoySk0EGp4BcPoXKcZV8+Y7ZfPnO2Xz7M5cSnP1hsCTdt+Rxs7nvxmksm2mqMJfMLOfmS2rRkGjsMIPBSVXJENpmkbDI5p+fYHchp9R7SPmV2K74BAAxWz6uudeTn23jzuWTsV/7RXq1XN6IJIPspi4fg/GAvSjXgeA0r1MtD3Klw0x3K5TiAafVkQiurdOuIuYqY7vjcnTZTrYY4V5XstmhtOX3FIbNviC9Wi76LLNi5jJbA1XSIA/kvM6Xc16nt28wEaAM6Vn0i6bSNlOvRzJUYobE5rihwiLbcbzBGB39ARxCjCopmZZWJKXUFoQ9ifcGZu3MMAzDSEv5KhL9hN19HHv+p2zZtJuHntjGQs9q/iP/aT6hPsU1s8z0QAmNcGcD3/ndNo62e9JIzv+uOoQjYKpKrWrSMCMkuhjQXGkOaWr7AcZCGsmJKxonQkbF2zNG+puU/PHUI34aOzwJItJ7BiYKqRj0RviXn27mkT+Z6UdbDibtzgdPUylZv6eT//M/m1i/N7luPSVdLUtMD/oNXT2hJuckSk5KAb/u60fVkvd6NEfDSEw9I3L2XtDvCWMV0tULMXskKfnOH3aeci7d10fwmX8ltPJ7ydferT15CsmRI0Pvfp5RoLuT6uuwqYEeT588UwOORCA9bAd/EuOBVEdFI3L+7LkvZKitezC8PahNO97zXFpfUo1P/Xcng9ERWfMYyuF1KEfOTLnN4Pwi883OIIPTxNzJRYnHRZcsx5i/CLVtH0YkgDxp6Yjza8rSd3ZTa3FOBdvUK5CLxpHlyEWQk1vkltpFdC6roHt1AzcuGceq7W34gjGae8yUlcJcO3LuYrTOQ9ziHJlTb6m7LPl4yuUUTrmcB4DwG8dRj5s/nF4hB4so4PQPwlazvqJVLeSnG218Ox/Gy/18JMskQ3ZBYYb7TRR/EwLQr+dQWVQB7sOJNL4jSgUlC66FQ43MsbaxztON293LCkcTojB6Q0Wr4kdRddr7zPfVMxgiNDSAIzsHIziUtutbLPm5NfYSpUNe7nW1sjK0gCVWk9wRcnPn5KPc8+Ub6HvhUVzBdtoihbyx8UM48ouxonCzcw91cg9WQcPdIejDAAAgAElEQVSrO9gSqWO8aysAmqqyM1bHCkdSlRk8vIPCSZcjedqQJy5J9AMC0LqTJOfEWgndgD49lzLJS/+2V3Atujxhv54Yk0IcGjas4ZiQrNlKJWVngv3HBzEw0/bCUTVBuoEEOU5c3zBGpH1Gm/dQsvVJplrmUbz9dZS8u7BMWJim5GQJUXRBRjRMQvDcy1u4IYW89PQOMpbemtpHZd1bO6m7dHniuVVO3ltdN/jpCwfYd2yQ7CwLD39iMTlZJ8hHZxmRqIJVSCdUgqsAPF1gJMnYaDVfJ8IkCgZoSTUj9fM+XRiamlD6BjQXRVIAtfMwYu1SIjENl+O9qSBpJCeeCjdMWM/U5GCYwIrOPPRY+KRKTmpN3IXc++d8ImFxfxbuTyrJOZ9OgRcbzkd7g9Gg9R5DyMpHdBWe+uS/Y2SUnAwyeJcQ7C4sdZdinX0DonNkolNNeU7a86njRvYZOhmkopoRDTQBLp9Twbc/uZg7rppIcZ6pJg3XrBTm2LHUXUbMmaxbkicuAasTuWY+tqV3j3oteeJi8z25Cim/6xsUXXGXeSC+Y9ymFuE1nLRrRYgCVMlJ97MF4hEETeFwrIIGpRzH5EX0SqZ5gm4IvBKah71iEmFHKTZB5QP9T3Cn9gpX2c3ULKlyOifCZkRp7xxA1UwSVCENojz7IKE1jydUnGa1CN0QsAkqpZIZLNbIAyyymj/eGmaAHNv/OqG/fhNX0EyHGycPMmtoHX29AzyQs5or7Ucol82dcLliGttjkwjotvg1itkVnYBuQMyQ0AyBHG0I5YX/S+StX6U52+lhH/qQGSDqzpE/PEN6Fu1xlaisfxvh135A7MCaxPETzQ+qWl9macsvKRLNwOZEQnK6kKI+bMT4as6ruF98hBIGmGlpA9KJky8Y42s/38IvXzqUNj629idUy24+n72O8WIvkbWPYxhGWk1OoRRIEByAoeOHSW0Q2tTSO6oqow11pZk69LW3ptV7Dfkj6J5u/L/7HH3rn2JP4wC6YeANxHh2Q9OI+c4Usf2riR1+c8zjwcBIRUGwOeEENzW7oJi9ok4CPTyS0Ly15RDh6Oh1Lpquo+ujzJmi4hxQqgGItR/iZy8c5KuPb0r7ngTCCt/5wzus3t520rWlXTdNyYmTnHjqYWoK4sngCUTNtcdrcgRnnnngtJWcC9cx7nwiQXJO0rfrVN/DxHmp6YFa7JSmEH/PSLPZ1s9/HZPm6SK08rsEn/rn872UCx4ZkpNBBu8T8lzJXWabRcJmlU5y9ulDFASqil2IgkBlUXoudVGuHUGUyFvxReRJy7Bf9Snsyz+L677HsV/3pTFzieWaBThufpCsO76NlFeBdcqlWIpNRzwFC4eVSnKzrExYfEVijGXm9WiCOV+jUsr2wlv4zC2zuGRWBUerbmFAc7EmMotePY/CXAfueZ+kSzWDnQHNRYc8DvvVn8Nx41eRJ19qpv+V1BExzDmbm1oS11pmO4ZoaOgd+1Hq3wLgcKxqVCXokngvoY4JHzIVNkODaBCxoAr71Z8FYIalnRtCL6eRNQDn+JkYCPyn9xbeDE/ntfBc+vRcfhW4hp/7r2VnrDbt/O69m2ju9vHQE9vZ+6ZJeMSi8WwLVHIi+vQcerR0Mhzd+hSau4Ned4i/vrZrRGG2gyifcr2FBZUBb4S393byxR+9leZuB9DQNsTB5vQidm2oi9DqHzNv/yP8v7wXGS8PkuNt5MHcV/h09npmW9qYFD2IqsYwokF6V/434yNH2H64N5EyNlbgo7XvB23sIvSJcrqJg12I0RA3g9B9fUQ2/RHl2DZCf/1m4vMEM/XQ3d7MYusxwGDQF0Vt3QtKBKnNTAmTRFNp2rS/m+7BM0trSk2F0z09RLc9TXTTH+no6Bv1/NAoJCdiWEcE6zlCeEyyMozRVBsx6mffsZF+7lFF48Gfb+V7T+4aEbQO1/RoSNTHzO+Z3nWYY50eVM2gvS9JENZvPsiHg3/Cu3Vss4sT8V6VnJYeH199fDO/fuVwIl1tmORosSi/WHkwYShhGAaxQ+tQu+rTSE4scOYK198DhonyWCRn3a4OHnhsE609p1Z6TjSsMGIhDrW4OdaRufcnInVDZ7TGx+caeooxR4acnhyZdLUMMnifIAgCFUVZdA0EuXJuxakHvAtUFmexNx4kFebYyXaaO8xS0Xgc8YD+dNeaWhckiBKV//h93O3ttAVsLG0c4vpF1djEKAw0I42bg3XaVVgmLaWpuZNBcTxfXFCFFO+jU1hdy3f23J6YLz/bRrS4nO/4biJPDDGou/iHFVOZNskM0hzLP41hfApBEOj4xdeoEvqZdvR3fMJVTKtQzeWWhsRc+qC5K91CBWKVht5xgH4tmw2RqdyZ9U7ivJLp83FU3oI241p0b6+paIkSgU3P4YoNMNHSR8Sw8Jjveu507mC8I0DO5Pmwajd+w8HK8EKWTC+lTNHYE89+s1VO5cW2HsptIb7sfJm8cAf/749vUyT5KVC3gABD+TPZezzKJelCHl1qfhrJ0QUJ0dBQ6tfz1945eI83cuMJYwDKZS8rHPsQehqY1r+Pb2cZrF+7iNkTPweYbmmPPLUHgGsXVtE1EOLOyX4Kdv0uUUs0WnPYT2avB8C/uwKH6qUsUM8/umCPewLdgyEEwNO0f9Q0s/BbvwKgVS+lWugbQTaHXfOGYRcUYgdeI9jYiWB1oLUfQKlfP2LeUtnPg7kvIwkGQgC2ByehDJiftz02hI0YH7xiGg1tHg4cH2T74V5uvdwknrpusGFvJ5Or8qgqGVlIvaO+l1+uPMSnbp7OspllaL2NiWNP/Pkt7v+Hm6g+YZzk7ThxGnYeD3BicmqOGMbtj+I8SS8wYxQlJ0cI4wsl3fqGCc2xdg99Q2EgTO9QmLKCZHPkYdMBRbBwXC1BMwSk0BBSxAtkMeAN09rjZ1ypi5qu1ymXPZTLHlRNR5ZOvq9p6HqasjZCyYkER01p9Aai7G8a5JJZZby+w1RMtx/u5b5F6SQHNcaOepPMfPaWGeh9TUQ3mxbcQm5pYr7W1m5sbUNMOUP1+28dSdLpTzMv2XdsgL6hMH9eZ36nn17XyIMfPbkxgX5Cyltbey8/fKETiyzy2AOXY7NIGGoM3d2BWFwzwihFObYVPeDGOucD79nZ9EJHas1banrteUNKqqzu7UUqrB55imGgtuxGKqwe0S7j7wkZkpNBBu8jHrhzNnsaB7h6/sid/bOBisKkr9L1i6vP6o+NaHUgFVRSnaNTXTFcT2TFccMDiXOkklrqSmqpO2HsvMlF5LqseOONRa0WiVyXDQ2JQd2sVZpclZc2ZnjtA3W3kXv0j2SLYeZa25iLGeTqBsQ38enVcrCW1mJfuoz6t4v42ZFSYobMJEsvc61t9BgFTKow77lUOgmpdFJyzbVL4MiraIbAb/1X0qkV8rj/ev7jw4tHpB1+9pYZtPX62dNoEsl7r53Mo38J0hSw0W4tiKdxvZGmCP3POxY8ei4qIjI60txbeLMhzBtDBQgYRLHSq2ZzvPgqrhp6DqVxC0fd5VwqmzVMLWoRIgb1SgVtaiGfzl7PtY70FLLrhW0M7pxA4cIbaO1NBivNe3cy1dKN7DmGIOrUxyrIl4KUSSfZnT26gZjNzvA3J0cIEdv5PH2txykwPKP/SsR3M3eGx1Ho8OCK92SKGRJWQSNLTN9dLBL95Hs3oKcuwxhZxzLBFUaKmIH+bFs722OTUAfaEykHlfIQk6tyyXfZOHB8kB31fdy0bDxH2jz4gjGeXGPWRH3tnrlMqylIpHuJopBoXvv0m40myUkxiSiTPLy+o41P3WymTg54wzy9civ3hp8FwaxJGy/HHQSDAiQ5BwAzLR34Bvqh2CRJ+5sGOHDcze1X1OKwmTfQGMUcoEAK0NbfC1Sz/XAvf1p7lDuvmohsTd70pk5vGskZbqgZNWQUZHq0PCrlIarlQRZJx5m+8xl+8uYKrr1qPnOirYlh/b39lFeUYqhRjFgY0Zn+9wdg+PvSa4Yi6UoOhgZKGKzpN+BHz+yjvS+AJxjDKieDYT1e6+HV7TgBUTCQ0HEMHCH45C8RC6qS10pRcrLECCu3tr4vJEc3DFZta6WmLIfp5VYMQ0d0jLK7cAEiQZQNHaIhsLvwh2L85Nl0J8eYOnaNWHtfgCOtQyw7QQ3auKMRcKKoOoea3dSUZePY+QfUY1uxX3E/lqlJFd/QNSJv/hIAqaAKedycs/MGL1CkqrAn9nBr6/WTl20jx5nM3FA7DqIcfhPbFZ9AHKXX3nuFHkp+drq3e1SSE9v7KrF3nkUqq8N5yzfP+houFmRITgYZvI8oznNw/aKR/wCdLdRWJH+cr5j9/qhF7wZWi8TD9y/mydcbmFJtBlPZJxRElxU6RxvKZcuX8ZLmINS0h6umushxH0b3dLPHuoiIuw8FiTXhWVw7qxCpoJrJN36MSP0GAF7kOoQqP8U1E8ckfMWLb6S+7Thre0sYcNbylRvqiCk6RUUmwVmxeByrd7SxYrGZrldV4uKquRU47RYqi11cv7Cav65vYneshmrZnUZwjipl9OvmZ6IWT0XuP4y1oo6Obgh1milRDQu+wR/XHkP1ScwryCY35ud7rmRDyfpYJasjyaDBM345rpYNyILO88FF5MsRltsOIO35K9rEWTR3qxSKfhxCjPtdGxKW32HDwm8DV3Kt4yBlDtMR7uf+azAMgS/kvJGYXw71Q0rd8TJbIyUd+ygZJbtyUMtCE62UCOZ73hcbxxXORlyY12xQyqm19Cca0e6MTmChrZl86fQKm001wsRMSzv/lf8UojeZBlZt8VBTlk1VsQtZEulxh3ji1Xp21Kenm/1+9REe+dwl/PzFgwy2Hef+BSCShY5Ivsust1JTTCJKJS+vN/Rz+xURcgLNKKt+wbKIA4tFp1Ut5An/VXw730z5ihkjfzaXOw4T3P0ETPsuhqHzxMsH8Ud02nr9fO0j85AlMc2NbhhlkpfrO35K/c5/4s/rugkYTlZuambO5KSD27FOL5fOKkdp2m72URq3BBkIqeY62rWCOMlxJwwybnDsZ/PGCEtzkq52vs5myitKCa/9KVrnYZx3mqmpqUjW4wiAgRH2mfVXqXbgkQBCCsnRjWSK3JYD3WmbF9FgAAvwzLYB/jEukpVIPm7XXsHQ0vtdpSJLiKKNVo90FnC42c1zG45jReE/K1YhCzpZH34EYdgB7gxhqDHCr/8EqWwy8pLbTz3gXcJQomnprHrEh2R3sWHvSKdGiySkj5MtCSXmW781DWYWFnvNANBiByVCf5+bYfb++PMHkCWRH+aaBizRva+mk5yUeh7l+I4LmuTovn6Uxs1YZ9+IYLG9qzmME5ScYRWtvS/Aw79/h6nj8vnaR8zG5IauE37tUcBsRG5bfNd7fxMnridFFdY9PSOPRwLE3nkWMB0/R1Nf328Yhk5o5XcxoiGy7ngYQX539/69IkNyMsjgIkZpgZOvfWQeeS7rWav5OVvIcVr54m2zEs9FMfmPbG6WFXGMf3QFQeBD182D6+alvR7d0cYzbyY7oQ9bctusEl+6fRa/fuUwt185iUtnlZ90XYLdRd1HvkbHrg5uLM+hrjp9R/v2K2uZPiE/YRQhCgL3rZiaOL5iyTg6B4KsP6hTKQ2x0NZMg1LObwNXJgLgWy6toWDBAozBVqTKGbArqcTMnzmONfsGaO8L8Ix/AZ+Op40B1Gcv4w13bfw+QJbdQvm1H+crj5bgFKIE5Hw+euVk6jcOMs3aRfiNn1IYKebfcvclmr0OwzXnWmLrLbwdmcp8awta8WRC8hSynRZsl8ymaftGnAP1FEjpOeYfcO5LPG5SSujQCqgplBkfPEizWsJLofl8OvstItlVeN1ZRPMmgNdMl/PrDoJSHlm6uSu/LTqJhbbmk34ew4jKLmxqes2H7QT75jqXH1kSEXrr+UjpUeoHRHbW6wjEU78MJwYC/Z4IDW1DNDS28fXc1eTWh7nWPpc1kdm4NC/+333eVCTiKJO85EbdPPfkM9xjeRMXUGcxA4n9sXFUVJRA/HTVkOgUKqg00oPLrGAHuq+f0IYn+Jq9lUejN9HYAZ97dANfvnM24wOeUYtgRQyqdv8P38mH54OL2OCfxvZDycClqdOLNtRFZN3PAdDd5r2Nxn++29VCltqamGNJqjZWQaVOTm/0GutrQ/fVmvVUgHpsG9LC9KB8uB5HLByHPthqKjlqLK3+yogEICX9pSOlBsjQNYrdu5koixxXS/B5vRQCQd2GaojIgs7Njj2j3IX4+MpZCJ0HyBJj6Gr6Z6+oOhIaAkaa42RM0dh8sIdFU0tO6SynR/xkbf0ZcyxVZIthpIgHA1A7DiBXz0EbbMMoqmXfsUGmjs9HEGDH4V5KC5xMH8MdU+tpROs8hNbbiHPRreZaO48QbdyObemH09Z6ptANA03TscjSCJtwI+xHzzV4c7f5mQnoyOgoyAzzQ22wndDL30cun5quwKMha+ZGhJhXjt7fjEM4wQY+pemx4EhXI3RP8rulNu/CuOy+MYPY1h4/3mCM2RPPjwtYdMczqMffQZCtWOd8IPH6cGroaMG/our8aW0Ds2qLWDClOF2F1TWMsA/BmceRtiEMA462e1BUDYssoXUkWwwYYT8xRWPlpmbmTylmYsVYndjODGnKknckyVGOp1uMGxE/wjlWK7XeY+h9xwFQ2/ZhqV18Tq8/jAzJySCDixzTxl98eeulBaOrOCdDKhmxyiK1Ke518+qK+en/ueK0d6tkSeT6uFIz2rGZE8b+QRYEgU/eNI27l0/iiVeK2NB2lE4tP+Hm9o2Pzk+u1TkbMOtmhuGwyXzrE4sY8IT57Wt5rBkYZJmtkcCsu5iz+CpWbG1l4ZRifKEY2Q4rsiQyrrqUI20ePn39FGbWFvDQ6kt4UH6JrKFOptAJKW/bvvBWHA4bxtRrcG3fjj8M3/Xexm8+u5x/TyGaU6tn0bvxWWh4lagh00gNM4UkifyV/2oOKVWIgsBDS6rp2BRinXc6XiOLR303Qzxjwj5xIeyOkxzDTndeLSXu1+lWc+nTkp9RQLelNZY9EbG8CdgGxu5BBDBTO0zg958HJcJCYKELPs4mIoaMXVB5IzyDdxyX0+MO8ee1R/lo1mZyRZOd3OTci4JEeSwIhvlaSLfiFGPMsHYywzp6D5hjain33zAdXjSfq4gcrL6T2io3ursD5cj6xLmedb/B0t9ArghXOw7xYmgRumGw43AP40epyTkRN2btZ1t0EuGU29TZHyS8Kan0WXVz7VHDDOiHHfvK5eT8haIfWdbi79GCU1QQvJ0oKb2bhnvfgBnw9QwGcfWbqaFS5TT0wVa0sJ+QNz09p/5oOzNLkgYcR9uTAeCkyEGukrZxVQ5siUxCVMIggWTPImZIZtNf68g6p2G02+qoMg4gCvDR0B/QhiqQ8isJRRQe+tUmHrA/T7ZdZmDh59jaDnnZNhRV55UtLXT0B/j49VNOen9je1+lKNjE/dlN9KZ8N9WWPait+1AbN7PeuYIXOkqYN7mIw61DRGMaNqvE41+5PFFzmIpEwK/G0H19GAUuAiu/D4CYXZgIrHXDYM32Nma411JSmMO+nCs50ubh3msnI0siiqrz6tYWFk0toTKe9vjDp/fS2R/gPz67jF27jpGqlxhhHwPeCJ54SvBdzu0stDXzA+/NeAJ2DF0jvOYxiIVRW/dw6GgnYd38zriEeI2eICFmF6H3N+MUYlwzv4p1cdJUJiU/1xPrcdICayWC1nVkVDWnoW2IR57agwD85+eWUZx3arXM0HVQwhgWJweb3UwZl4fNcvobeG/v68Jhk1k41STiWjzQbjpwgOKa5RTlOtB0ne/+YRc2q8SD984b8buxaX8XG/d1s3FfN088uHyEChv836/guPlB2uMZlppu0N4XpLYiB+XIhsR5esjDixuPs+addlZtb+O337h6xHq3H+7lly8d4ou3zWTBlNOrnRlLyTEMg0BYweJO/xuL7VuFXF6HPD594/D9hHo8WR+rNu04ayQnuvsl9GUrkHJOjzRnSE4GGWRwzrBiyTjW7ergY9efWMVzatSUZXPPNZPxBqPMm1ycqHUYxrmU4wVBICfLSk15Di83F1GYY2PQF8Uii2lNX4dxYvNKURAoyXfy4L3z6B6cQiiiUBdP87n9itoR4z9183T6hsJMjRPaovIynulbyieyNxLSLTwZvJzP3zoLqxbCPu0y8gtcDA0Fyc+2EQibO7KpStrweyi9/HbcFXW81mBw6fQS2PwIhL10qXnUKxXct2IKi6aWkGW38MSRO+nqSd81tFkkKmYsILb714CZZuSacw3d3fn8bKtKxEjurD8fWsREuZdL7Y28FF3MLLGZ18JzyBEjdGt5fGmmFcYgOesj05hnbTEJixIBSSaYPYEsj1lobY8rPsuzjuItWk7EE2ROYBfTHV3EDIkBLZsK2cOtzl2JOf8UuIRDShXfz38m8ZqKjEy6gtCuFpKTldylVg2JyqoKrDPnozS8nUZyLP1Jg4zL7I3Mr82Djr3Yu1VETu6+Bqab3pX2etZEZjOvMIQnYuAPaxjdI9O6hu9tl5Zvmg+kKHllkpd80VTotscms9x+mNxQG0pDcgde6200bcv7mwm89H22Bqey0NlJPtAuVFKGqTJ1vf57ylKue6C+jZnJdls0pJCcainpFLfA1oIUN764+/pZKG+uAczvold3kC2EOeEryZbBfG4xrDiFGLlCgOi2v+C88as09/ipUFrJs/shAva3H2PL0AeJklRJdh7pY9eRPhZMKeHjN4xOdrRgMjgslXzohoAoGKhN2yC+sz/L/zYvcEeiDg/MTYped5iWHh9D/ig3LB6XICa6J6noaYPtKK7kd14PDOINxvjj6iM4bTK9R/Zyac4mYh3wnMdKv57D+FIXV86t5NWtLby02fzvt9+4GlXTqW8dokoapHvzS+ze62FOii+GEfIQO/g7vpHTQLtWyGKbGczf6NjLU4ErUVv3Yvj7E+evenkdhxWzBsoVNyIRHNkYVrOu0ynEWDa3gs6BAEfaPFSnNGrWg+kulCf2itH6W0aQnKii8ccXdpAtqPgNB229/gTJCUUUnnmriWUzSkfUXQ1t/ity/WoOTvwEv3lHZc7EQh646/TS4br7PLg2/ZigYUed/C3EWDCRWif5unhtayv3rZhKW2+A1l4/dzm3EXjpdbKu/AQUJVM3/XEzkBLRS19XD9mj1NMp9Rto60uaO7T0+KityEHrTyrXuq+PXYNmKm2BGEAJB7A40s1NNuw1Nxs27Os6fZKTpuR0J9LRnnnrGK/vaOc/a1tIpZPK/lUoB14n66M/QrBlYQSH3lczAsPQUZuTDZLVtv0YSgQjGiS2bxXWOTe+q/4+hmEQ2/k8LL72tMdkSE4GGWRwznD38kncdnktFvnM3esFQXhf65veDa6YU0Fjh4cVS8aR5bCQ6xw9DU8e4/0OO/CdCgU5dgpy7InnM2oKeKmzhh94s7HmFDB+ZhVZE6ck5hzG0umltPcFcNhG3wkVRInCyXO4b7L53Kj5IbsPtPDzVS3oiEyuyiMr7hhmt438ubh2YRU2h53mnDlU+vZRMO9q5k4uQZ94A1fSTN24PGxBCTQF/75inu8cYvxVt1Km5PLjtUfT5squqUY9aD62zL4Rweqg3rmA36/cg9+wszK0gG9/bCZlLgPBnk04LPLk7/7E5fYGdgmzuKu4Edwd3DL4BHfkJVPRXggtYl9sHFfZ67k+XpukI7AzVouOSI+WS7EUIOu6L3DQ42Tn+g2Mkwa5xN5IQDfNMlwOC0GrA2JhrBV1icbA8uRL8PYO8NQ7AT7rehNRMIhgpV91US27ye3aOmajBsfND7LqjV0098e4o+QYRVPmE9v7Cjc593JVViNZRhDNJiLZTKJwOFZJieSlSDLTw6ZdcS23+at54e1m1kRmcWNKw1pZ0JGFGDoitZffhL6jnjx9CMMHUSzYUDDCPn7x5JvcVXAQm65yneNgorXRT9d7eTjPNPooCzakrVsJeokqWmJ3fdiuOD/bRhnJ4Cs11bCqsojWlFqm7dFJLLAepzCeKumVC9nhL2erO8Y9Bcm6E9VtEog+d4h51mQ6Xq4QZImtiY3RpCPkcGD61p5OhvxRIjGVz9wygzxXkqBG3L2kJo+9HZ3CfGtLmvtgthjBikKM9NS3//ub7YjolEtD5Me6KRo/if/6y0G+kF3P5PhbUwfaCEaS5MgIedmwtzNBmD6alVRKZ1g7ENGZtvsF9Jpv0tSVLCaPKhreQBSnEOEL2WvJOhbjLmd6Olhsz8vkhn3kyukqnkuMoGoGoe7jaV+9SXIvVZKbKtnNjmg8JdaeTX9IoADIsaqU0c8/ryjFb53B9t9uSb6P4FBaXUdkoBMJaFdN85XYwTVo/cexX/JRhOxi9jQO4O3r5cu251BsEg97bqdrIMiCOPd8dVsrG/d1sXFf1wh1w1K/CoCSo88Ct7KvaRBV0/n1y4cpzLFz99WmiUzfUIhdDf1cOrs8UfTf17CPSRaTVPj6eslRk59FuezlsvbfoDTdTU94HE4hwmX2o9ALvmcfIv/jP4B8899iTyBKrhDk3/JWoq5ajZZj/r1L4+agtZnpvErnIbr6k5t1LT1+09QjhRAa/n48/ggloo8Hc1/Gv+ogBbd/k80HuunoD3DLpRMSzZkPHnfz4C+2sHxeFSuWmFkGgbCCLxgb8RuR1nMrFsbwD9DotSScDQWfuRmlF4xHdMf/bgwdtWU3en8zSsPbOG76OvIoPereK3qHQuRqQ+Z9kCwIzlwM/wBqxyHUpu2ox3dgRINn5P46jNHMW06FDMnJIIMMzineDcG5UFGYa+fr957cqhXgw1dPpte9j5uW1ZyV6167sJquwRBLp89ifl3xmOddv7gaURSYMWH0eoITIYgyC+ZM4mOGg3BEpdKeEToAACAASURBVDLlx/WDl9bg9kWYUp3H0/HaqOEf4yl3f4mY38eSXPM6oihwW0KRMnfd/mmygtsXYVxpNlMMg7JCJ81dPp7faO5A20snMFzdIVdOR66exRzDwE8DBmb8XVZRmlCkimwGB6ljp28isycWYp09icj6X2PRwmiGQLtWSG/OTLa4qwGBjcJierTxrGADb0ZmoMdDwB/7buSOS6u4esJMivoCbI3WsRMVn+Fgb2x84v247v0RhhLh8ykNegVRouLyW5lhaeVnW2RcQojjSgkKMv88Z5Ay2cvTjdncKSUbjgp55YiuQuSKaSy7pYaKXj/ldcUIgO7pQm3ZTZYRBISEEgKwNTqZEsnLB5172KdM4NJZl5O731RmVofnMqhlUym7qZX7Ek5wclE1k2ZMYeX2S1nBJgwEfum/mnsKD1KidHJb6C/YIulOeEOaE5/hGKGyDCNLiOJ++xkKy0oxJl2ZaCh77fxKSveZwVeTUsJES9IMQrQ5KZaSLoCbo3VMkPsSJMe/8JO88trI2gIhOMB3frUebzDGg04zBeedaC2LbMe5ytnA29GpGIxc6LCt/n/+726+/cnFWC2SaaDgSa2jEtgrzeF4sIRPZG9MvGoVNOY7u3DpPhqVMlq15N/XP7g2MtfaBg2gHrVQJ19BsZgMOIdajvz/9u47PqoyXeD470xv6SGNJBAgnFBCl96kSBOwoYvrWvCqi+Wu2+42t7iWLbrFdct1i7uua19dXWSxIiggohTpB0JPAdLrJFPvH+9kUkhEvJQkPt/Ph0/0nDMzZ84zZ+Y8533f5yUUbnmfJ48d4WBMTeS4NTKiVaI23HqEftZSCMCufz/JyYaW5rGCIvWclzq3RSsVtu/q2dlcOckm9fpHjL3kAIXBJDLN5cxsV6ER4GBFmI8Lq1nsggExXhpXPAChILa0gdH5xgAIBQh7a9hREiCzlxt/eQku4CNfP7IsFdBUT/DoxzQGA+zXb+K3L+3gOvc6XHa17xnmSsJF22lY9S/MyX2oKG25WRUKh6M3hlqPA3JqLZ/LtduK+XCv+jwtmtwXh83Cs28XsK2gjH+vP8x3rhtFdmoMwaKWFs+6wn24zW2PUa9wGY1v/54ke1+WeVpuhJhDPvZ98D7JmapIQGmVlxyLagWzhJqgSrW27E2YzhsnJ3Fb05+wNNaSqlVQhPrOO1RcQ6hG7WPQbCcc9GMJBellqmagpQSLFiJctp9gYwOPr9yNRpiaen+bAhulVY08/05B9Hv1p09tob78JN+Zl0iv/IlomqaOUaS6pRbTi3BtKb7jBfx1jTqGbq0RR6iBMBqrTyQxq9VYveOb38HjLcEKHFj3OtmXDTylR8T/x54jlTz0zFaWDKhlMmCKz8CcPhD/zjcJFLyv5jwD6gs2sz/rOMNy0zp8nhOVDbz2wVFmjcni44Iy0hNdjMhNJlR+7Iz3SZIcIYQ4x3onu/nZlyeetefzOK3cftnQ025nNpmY08nYo08yfcSpJc9jXTbuulKNMUpPdpPgsUdbeTSTBXvcJydSHqc1OjDcpGkM6ZuInhVPZW0TenY8mtmCfcqNhCoKMWcOUc+raSyZPoDn3ylgQGZcmy53Jk0jO8XDvsJqslI8WHKH4TBb8GtW7nu1kpDFwdfmjoA/q3EoKQlOqrUcHihsu5/esA1XorpTm5aoOnn4sbDKO6LNdprN2WEFLpOmsWBCX8wmE8+/UxDZb4ibeBXOWAelJ7ewoeyYahmyp5K25AGaB1ElxztJbjVOwTF1GT5nDK6kXoT6jGf12xupPbyLmpCTHf4sTP7eHA70IqH/ECZrWvT4A3zo68+Hvv4scn4UTXLMaQNx2Cwsue1mvCUzWLHhCAcqwzxVbmKZpyI6XqkpbMGuBQiFNf5RPxnQWNuYxzTH3lPe7yXOHVCwg6YCCGx7nXviGnjCP5+JuR5MO3yEwrDGn09/69vqWLgT2wy+LwvHUhVy0xBuaZnI7JsFqCTnibopTLDvJ8tcjtPk527+BpFcu94cxwv14xhiPUaSqYZB1qJoF6xonAhFEh+Nk1VeDhRVE+uxs+rtrVwTVglZ0JOGo98IbAdT2XbUzov1XobYCqkJORlrP8jVjnWYCRIIm1jvmM5rx3sRGylp38wS9nOte0P0GAK4yg38rfbF7a/EOHCckbZC5ju3YdOC0fFj/awtXcnSvPtZFKhli60vW3057D1SSZ5vB5McqrVzlXcYsxw7sWqh6BgrdSzjOeqLY5S95UI2yVyPR/PiaTwJZjANngX7X4RQS8va8Mj7KG+y4A2r2KR6D0bXB0sMQphY26gzyX0EW7CB4g0reWxzAlarlfs8KnnY2tSHy10t3ZKCRbt4v/EoaeYqLrK3PF8fSxmjq3YTrKojeGw7Q9wT+QDVIlNW5SUhxk44DFply1gSt9aElQB+LKzZ2jJ+rLisgawUD9sPlGPHzzDtAI+/YuJ7yyYRW3OgZV9OFNDQdLzDi9z0psO0a6ijoeQgx8vrefqf73FJxb8IOdomz76wmf99p4wAZvZ6UhlqKyTPWowrPoljlQHmN66g4Z9q/wubPDg0P6nmGr4T9+/oc2iEKdvzIXfHriLJVMfPd1/KKfXogYbKMmx2G8Vl9dwfvxLnxkaCcS7M2SMo37sZO2qeNV9SHo7aUgo+3saJClVUJsWnuhLWmmI41uhp8z4TvC1JQkylwZMvruOL9new5c/GOrAlyV6/o4QdB8v50hy9zXfM6TQXBqooPAIuVdTCkjVMJTmtuq/Z8RGz9mH8pqux9LuoTe8DfyDEdx7bCMCWfaXRFtrpI3tzTWoXSHJ0XU8EHgQuBWKB7cC3DcNYd7ZfSwghxPmX3+/sVEqymE1txk/YBk0/ZZs5Y7NIjLW3KZfebNrI3lTV+Rg/OBVN07D2H4cV+P5/+dA0DVeru5QOqxlnJz/Y8ZExN1ZL2259U4dnfOqqUHl9WgpjzBiZGe1emN8/iX8eHUu5lsBVVyw8ZRB3a5rDg/vim0lIcFNZWY8/fTgv71YXQWaTxk9unchbmwuZPUbdCfc4T/0JX+kdiT++D4tHJ2EdoKYtNWka7ox+pPW3Q4HB4UAvHqxezBS7QZ61iFXeEczKNfHafo3DAdVy8VLDWF5pGM0vE5/qdH8tdSfoZYZvmJ+Dl54DoCLkYXtjBva5N0HQjyVnDKASOP++dTxWoBLlYLjlOMTExjAkJ5FdhyrY4suhMmkYY6rfVN2JIqpDThon3krmVi9b6/KYxA5ui1nNsUAiNi3Aukad/YE0bvWspiFsY1PTAEqCcWzbn05ywQquMe8GoNYUR8a1PwUgpXIPe49W8W7TINb5BvPTG/Jg1b2YIxOuWrQQ05pWMzzOycnIRL5FzoE8UjSaH8X/M5rghK0OAj4/Vk2NvXvSP4drLW9g1wL8PPGZ6HsIo/G7mktY7NrMAGvLuBaH5meY7RjDbMcY6TsCe2xkm9QF4+vefF7zjuCgP5V5CQf4oC6VpZ73KQvH8/vqGYyyHWIULUkOwL3xL2LRVCtg7thJhHIyqF7zBLbGtkUkasNOZkzIg+0b28Z14BQ2mUfx8vpK8t0VJNNA3ME3uNGTzruNqotgjRZLdbiDrrbHtjLRXtpm0Tznx9Ey8wBx3iKIJDmHj9fy6xe2EwiG+PqYhuglv1kLk20p50AgleNlNVzvXk91yEVhaR4+f5BwOMSymLXkWYt5v/EEr62NZWq4NFqEJblYXXIGwiaOBpLaJJWtHfL3Isdaiqu+mD+8uJ1eRzfR11V2ynYF/jQCkeIyu/29GWorZJFrC2FtB1q8v822ZcEYUi0dt7S5PvwrfSOn7TTHHlZ4R3PJRVm88aG6gHdpTfj/dQ8BTWO2Iy/aldJ/ZBvBsiPYN6sKKIEQvLAzxJc8kFWxiVE2G+NnL+DAWtW99FhjDEWhlhs6+/xpDLS2tJbGmBoZXvEmIVsRlZteJZQ8irREF6FwmL+sVC1iVouJmxe07dJWVFqHw2YhKc5BexW1al9TI/OymeLTMae3HR9XE3IQa2okOaRa1SwHRuOYfSeaprHnSCXPvNUySXNtq4mS120v5qpRXSDJAZ4FUoAvAKXAHcAbuq6PMgzj1NtCQgghRCc0TWPsoNQO100YksaEIad2eYhxnVq212oxE+duWT5iQHK0W1N8TMflb2+cl9fh8o5kp8TQu5cbvz/E5VNzostnjMzErGlcNGgqtk5epzNJrcZhpSa6SI538oWZudFl7lYlk4f2S2TnwQqCmAlmjsI2NJf2clsVxcjJTsXwJvLmyTrsVjMjF0zm8HuHSKrystlQF4SLp+bCzlP3q7kcNLSdpBegJuRkWP9kbHltB4tb86ZizZvKyZ+qrntN7eYbWjZ/EF//3XoAbpw3CFNjOhVbXuGt4hjKGkwUBxO4t+8AvjXISrAmC98L3wJQ3aWAK90t1ZwSqSfTov6/9sA6YswtY248vVsKe6QmtNxFz0h2kZyWjm/MFTS9/zRbmvoSiklhhLaP+KYq4iMJjWnoXJqKqljbNCg6DsqSnkdj7jy2b9nG+iNBDgRSWRjvIF5TjykLekhMTsKRN5FEI53HD3j477g3Sdaqo8ex2fBWrUVveYfwn0iL4r5AOtctXEzlm/u4ryiVypCbIGbq7MmnxCf6nDYnJmcspuzheOf9mB8+/h4PxD8XjZczNp5+Iy+ibtfT0UlgHbPuwNrvIjIKq2B9JaWNJpIjH7M8awmJVpWsJOaNJrvAw18qprM4o5i4XilYD67jMscH2Ewq2QvmTMJ8aH20q93+QDq5lhKSgyeBMIOtRWzerHG8QnXZKty3p83E0oOthRwIpDLFYTDafhiAtUWHOF6RyiS7QZ5VdT+c4CigZv8fMJlo09IF8M+Gsez0ZTHNsYd3G/NIN1eRYyllXqRU/ntNOjnWUuL9JzhyvJrRlnI6stffMjVBoXsQYe0jtHAQLeQ/ZVufM5mMQYNh1386fK5mE+372MAorp4xgCun9eN3/9qJ5dhHmALq83qpq6XcunfPOixaMNo5syiQyJHIDQmTFuYGz3tYTkCydR8E4VgwiXHj8nm/Npa3d9XQELZxd+wqkk11HA/GkWGpYnCkoqS9/gQ/e3YTX1k6luLSlikF1u84Tr03wJTh6YwYkEx1TQOHn3+IajyM/9JdbcaJnqioZ3hwByNjDkfHRRX6YkgPmND6TyRYsIHVjUP4oGkAS90bqAk7Ge4oJnB4M/69a6nrPZ7fvrQDb5NqcbQSYLpjD9t8fSgNxeIO1RM4XoCGan3/tO1LZzXJ0XV9ADAbmGQYxobIsq8A84BrgR+czdcTQgghPsnMUZms2VbEZVNyWPtxy5iMy6bkRJOc1slP37QYDh+vJeEMExKTSePeZWMJhcJYzC2tFHabudNy5aeT3OpuaUYHk+e2nhdm/rg+LBjfh427T7B4cs4p24LqZtisf+84mnxBjp6sY1CfBKwWM1dfPICGRn80yUlJcOK64l68W1bykW0s+e6TbD3qZas3i/41m8DfyH5/Gkv6VdKrTFWuc/UZyk3TO08O8/slseNgOXtiJzCBIqx50wBVuOAnt42npFx1RwIPZN9B9fPbMA6qRCbObUPTNCwJqYT6jydwYCPWobMxeZJo/PAltKCPw4FkakJOBsXUYm2qIsbUSEPIhjZ4Fp6aQ9iGXxLdl5SElq6C6Unq2NjyL8GUnoetxMyArESaKosJvvETrAQozb2MnPwR8Poa3vTmUxNyccPC4Viyh+OyuUjLzaPwjX3UHyzH43SCVyU5P6teyG9vnY3FbOK/86HOOwgtdDHvbtpPaNfrTLXt4nVvPrvDA7g7v5SNe8v4wNuXQ4GWClixLiuZKR6+9cVR3PdEkLISNfYmPScXjr4JgGPazRQ2ukj+4FEANHPL5zot0UVD2M7hQK9oq8aEqePQ7G4sfUcSiJQXb77z3ic1Bk0DM23n30pBxcKSNZS5Sb3547/rKDjeD91k5/LQ5mjrlhabQuzYRdQfUomrL2zm2bpxfC/uFTyal0XOzcx07qa81sMR00ycmo+Y6gNggZ2+TIbaCpnh3E3YbGWSZXf09bWCd3mzYQw/jG9biTHW1EgoDM+xgEuDbxNvquflhjG836TSpjWMoy7spybgolhLYVywAB8Wtvn6sDS8AYfm51aeJ83Wcan3vX5Vfe3ikb350hydhpUfEixS45xMiZkE66vRmlRMxowZSuyQCQSz8vDvXUPg8JY2z/Wn2otZ5NpMqrmGm/ofx6RpmCxmslI8JBzvuJR9cyvhTl8mJcF4dvt7UxaKoSLojs51Ftj3HkmoCYvtQ2aycEo/PtjtpnSHOn4PVV9KnMlLpqWcGz3vRZ/bpIVZEHqbpx4/zE5/NnZ8JJrrKQkmsK2gjG0FZSyc2JeBpmMMi4zxeWLlVu74wvhoV7PC9StZ4m47P8/j6yopWfsuGv1xalnRLqqP1M4D4EuJRxlTt4am95/hKUsYb1OYfhmxXDcjm49efJI5zh1Mc+zhz3XTuc3zNlq9nxAajWErn3bWn7PdklMGLACidToNwwjruq4Bn27kqxBCCHGWXDs7lyum9cNptzBjVCZb9pWycGJfslI8zBjVG5vV3Gbw7fLLhvLye4eYN+7MExOTpmEydzJi/zNIjG1JtDqaYyTeY2f2mCzMJk2Na9K0U0rytt+/pTNz2X6wnLljs/AFQnh9Aea2SsJcDitDcxI5erKOITmJmB1WPJfczvTI+lkXqVISh0ryuO8J1c/eN3oB7pQbCBzYxIDcCWj2zhPEm+bnsXZbMVOHZ+BxX4zWau6Z1ARXm9YVUK11Ow9W4HFa2/Tdd0xbRnj0ZZjiVUuedchMQg017NtcSa8EF+Qk8rPHXiXbXM4xl859U6fTXkqr10pvlURakrOZEGkg8Xty+G71QmxagLtGXILVYsJpt+BtgiMxI7EOGNdyfE0aX106ioqKOrx7w5S89Q+erp+ID2ubxFclp1bmXTyM4OSBHDd2s3OTn6tn5BLbN5GTQYNDW9pe7LaeW2xA73gORZKcYSN0iDT+aI4YcvQRBBLuxrv6j9guapns1WI2MbhvAs8XT+Nbk514+gzGFK9aJ+yjLyNwZBvmlH6YIpNG2qxmNDRe8w4jyVTLm435LHRtxR2ZNNSSMZixFgevbjhCcVk9Ww8FCFnHclPMu5gTe+OYfgtabAqaK55wQxU1+UuJK4jneJ1qRZjpVBfeSeY6vhf/SnQ/G0JWnqsfj8b7DLEVMdu2rc1xuMh2kJqQiziTF82dgHPu1zix6jECtRW8789j0pyJPPyyAzMhmkxOfvOVydQ2+HDaLfxt1V5mj8kiI9nN0aIh/P7lXQQxUxRMpK+ljDTzqQmOpd9YNGcsJ95TraDNZfztF11Jw/F92PLnYB97FeHGOur+ficAsSmpaFY7luxhmFJywGzlRFw+W9ZvpC7sYKc/i0X5abD7GbKK36RxfZjA0W2MShiBw6ri/puaOfjDZuJN9dwc0zL3zp6kmewot1LtVS1vv6qZh00LcPv0BJL2PA9N9bhHzmXRWNWSmp3aMpHrxJF9WbO1iGrfqd8lzd0lf1E9n2WeNSSYGyjIWcKxpjgKjANk73yTJGurCoDF+3j0RTf7C6u468ph2Ao/hHZFPEsjc1GF0dqMwWv2j6OZJMel0pcTXO17hhzPQCa76jGvOsIcp2qNjDE1clfMG1i0EEcDSbzcMJpvd1BspDNa86yv54qu60uA54FFhmGsOMOHHwRyamq8BIOh024suhaz2URsrBOJX/cjseu+JHbdW+v4BQJBbnhADeC/clo/Fk85dQ6lcyEYChEO0+bCvCOrNh7h2Mk6br50UIcTZZ4N4XCYD/eeJDs1hrQzmEQ4HA5Hj92k/DRuW3xqoY4mX5Bbfv4OALdfPpTxHXR9BDUeoKExEG2RO3qilufeLuCamQPaXES2P/euv/+t6Lq/3/Pp5/Y4VFLDD//S9q74uMGp3HFFPgCHI+uz02L48c1jadq6kkDpIdyzlqOZLdH3337usGAoRJMvhMtx6v3tkLcGzWJHs7ZcjL7y3kFeXHuQ2RdlsfNgOZePimPI8RVYUvvjHK8qke04UM5Dz6huVXFuG7++bQQmhyeavAYrCgl5a7D2HsyhkhoKnv0FY+yHTnl9iAzur51JbUwO9VWVfGXgEcy1JWypjOOdxsHcGfMGvS0tJZqdE5fiGDGPQDDEqo1HGJKThM1q4ruRgesjBybz1atHdPhaJysb+MbvVJnskXGVTA5tajNOqln88ifQNI2DxTUcKqlhxqje0ePafP3c/P/ej14hVFmMa+ataKa2V/zhcJh/rzvErkMVZKZ4uG52LrXPf49QZTHtNYSsfK/qmmgFyEcS/x5dF7f8CX757Da2H1Dd6uI9NsYNSWPprFzw1hI4eQBr9vDo8Q+Fw/zuxR1oJo2pwzN4OBKr78e9FC1H/1m85R3CCu9otU9aAz9O+CcARX0X0PvwSooD8QTm/wCn3cL9kZshYwelEAiGGZGbzF9X7iEM9DLV8D9xK7Bpwc5eCoA9/nT+Unsxfiz89fuXkBzvPASc9gvxnFZX03V9EvA48MpnSHCiYmNPP0uu6Lokft2XxK77kth1b83xG9o/iZ0Hypk7qR8JCaefU+l8unbe2Z9noyNzJnpOv1EHlszMZd22Ym5ePIyEhI7Ph/QkNyXl9QzTUzs9vguntR3flJDgZnhexwkRtMQuJcHJyUovcR7bGcUuIcHN9fMHYTZp/PVV1eIR67FHnyMhwc2vvjqNpDinGk8285pP/dydv+ip+3f9pUO5fMZA4jyt78K3nbl+6hg3H+4rZc3mQpbOySO5d3rbJ0loGXgeH+/iJV82Y+yH+Kgphzlf+z5bHrsPzRnL8KXLeeTZrRyr8/HrWyZQU+9D75PAi6v3s/I1NZzbPP1WQut/gSkcwJkznNTJCzFFkrLrL1VJbENjyxiZySMyOz3unpiWrqBT5lzMb55P4OuxK8m2lGNyxhDy1mJNyiAxUX32Rie4GT0kvcPnir7V2dd+4vobF+W33YfLv0r1phWEfF5CTQ00Ht2D2R1Pw8DLCb2l3sd1c/M4dmQqWSfeJWXx3XgSPWSnxUaTnLuuGcnYwc2fRQ+0P/7AD26ZAMDR4y0tMa86FrM8cyfuQRMoW/VHCLfcEAs547FoIUINNWhmK6FQCC3cNgkZaivkI18/HJqfQZHWJ39iP3LnXsOvfuHHkZTKj8Zko2ka18+v592tRdy+ZARJcercGDUojTqvn3v//D6PNl7G3ZNMeCoNfCePRCft9YXNNIatBHrp/Gn/UIKYGT80rU1FytM5Zy05uq4vBp4GNgKXGobhPc1DOiItOd2Y3FHuviR23ZfErntrHz9fIEiDN9BpcQTx/1NUWkd5TSPD+p86gP9MtY/d0RO1PPvWfq6c3p/+veNO/wQdaG4NWnJxfxZO6nis1YUWDIU4XFJLv4zYU1qP2nvhnQLe3rCXWRPzuOriAW3WhcNh/IEQNmtLK0htg48Hn9zM0H5JfHH2QAIlBsGKImyDpp3SWtLsJ09upqquiXtvHovD1vm9/Edf3M7JSi8/uPEivvvHjdRWVnCbXsrwuYsJ1ZZiik3B5O68++fZFmqsRbM6afCHWf6w6qL2yFemEO8yE6otxRzpXvjaB0d5OjKZ8s+WT4iOJzudhsYAX354DQDD+ifxjaUjAQhWlqDZnNQ8fw8EA8RccQ+aIwb/0R3Y+o0Gq53/rFjD2GN/pxY3CVpth89vn3oTrqEXU1blxeWwdthi2F5VXRNWi6lNqerAiYMcePVxniodQpUjg2ULhvDL51S3xS9eMpAls3TMZtOFa8nRdf1O4BHgJeA6wzCaTvOQTxQMhggE5Me6u5L4dV8Su+5LYte9NcfPhIbHaZVYniPN44DO5vFtjl1GkpuvXaO6S33W5182fxBb95cyY2Rml/4M9EmNIRhsnra3c5dNzmFQdgI5GbEdvh+TprVZ7rRZuO9mNe4pEAhBr1zMvXIJhoBQx8fjm0tHRicZ/aRjtnzxUNWtD/j+DWP4+GAFg/N6EdI0cMQTAkLn85hb3BAGuwW+ds1wGpuCxDitBMOAJzX6XpIjVc1MmkaCx/6pPxdWs4bdaqbJHyS+9eNiUgkDrqvuByDsjCUMmAdMJAgQhFlzp7JhUwoZGcmEtz9JuGgHfiwEwyZcJh9brKOZqk8lEAgRH2n5+zT75YkkN222TerLrv43cbjkEAPiXCS2usGTe4Y3C87FPDnLgUeB3wBfNQyj656VQgghhBBd1ORh6Uwe9sndpLoTTdOig/fPJdNpWpSaNbc8xbptLJran8rK+i6RTA7N6Xx+rr7pMVjMpujfT0vTNOJj7JyoaOiwemRz0YmOmE0mpoyPdE/N/jo/f2ozhaV1XD45mz27D3LVwgmnbcU7E7lZat4xPTuelAQn2SkezGaNzF5n1nX1rHZX03V9IKqq/qvA7e1Wew3D6Lg2X+cOAjld5UMnzozFYopOaifx614kdt2XxK57k/h1XxK77qu7xa66rgmH3YLd2nGXvc48/OxWdh+u5Kb5eUwZlvGZX98fCOIPhHB1MsHy2VDn9eN2WNoUetA0jcRE9wXrrnYVYAUuj/xr7QngxrP8ekIIIYQQQnxutC0G8ektnpxDaqKLMXrK6Tf+BFaLGavlzBKsM9V6HjDgM7UUndUkxzCMB4EHz+ZzCiGEEEIIIf5/cjPjyc2Mv9C7cd6cm8L2QgghhBBCCHGBSJIjhBBCCCGE6FEkyRFCCCGEEEL0KJLkCCGEEEIIIXoUSXKEEEIIIYQQPYokOUIIIYQQQogeRZIcIYQQQgghRI8iSY4QQgghhBCiR5EkRwghhBBCCNGjSJIjhBBCCCGE6FEkyRFCCCGEEEL0KJLkCCGEEEIIIXoUSXKEEEIIIYQQPYokOUIIIYQQojgmxAAACQJJREFUQogeRQuHwxd6Hz6JF3AEg6ELvR/iMzKbTUj8uieJXfclseveJH7dl8Su+5LYdQ8mk4amaY2A83TbdvUkpwqwAyUXekeEEEIIIYQQF1Q60ATEn27Drp7kCCGEEEIIIcQZkTE5QgghhBBCiB5FkhwhhBBCCCFEjyJJjhBCCCGEEKJHkSRHCCGEEEII0aNIkiOEEEIIIYToUSTJEUIIIYQQQvQokuQIIYQQQgghehRJcoQQQgghhBA9iiQ5QgghhBBCiB5FkhwhhBBCCCFEjyJJjhBCCCGEEKJHkSRHCCGEEEII0aNYLvQOdEbXdRPwQ+C/gARgHXC7YRgFF3THRBu6rt8DzDIMY3qrZSOAR4AxQDnwG8MwHm61XmJ7gei6ngg8CFwKxALbgW8bhrEusn4G8HNgCFAI/NgwjCdbPd4B/AJYAjiB14A7DMM4eT7fx+eRruspqGM/F3Xs1wLfNAxjd2S9nHfdgK7rA4EtwJ2GYfwtsqwv8FtgKuAF/gZ81zCMYKvH3QF8HUgHtgF3GYbx0fnc988rXdf7AIc7WHWLYRh/lnOva9N1/Xrg20A/4ADwI8MwXois64ucez1WV27J+T7wZeAWYAIQBlbpum67oHslonRdvxv4cbtlScCbwD7UF/4Pgft0Xb+p1WYS2wvnWWA88AXgItTF1hu6rufpup4HrAT+A4wAHgP+quv6zFaP/wNwCXAFMBPoD7xw/nb/c+3fqOM9DxU7L/CWrusuOe+6B13XrcBTgLvdsteBEDARuA11MfyDVtvcgLr5cA8wGtgPvK7revJ52/nPt2FAI5CButBt/veUnHtdm67r1wGPo37PhqJ+A5/VdX2CnHs9X5dsyYmc+F8H/scwjP9Ell0DFKMurp69gLv3uafrem/gz8AUwGi3+lagCVhuGEYA2KPrei7wLdQFs8T2AtF1fQAwG5hkGMaGyLKvoC6arwVSgY8Nw2j+gjd0XR8FfBN4OxL364EFrVp+vhDZbrxhGBvP7zv6/IhcSB0C7jcMY1dk2X2ou4pDgFnIedcd3AvUtlt2FdAHGGcYRhWwM9Jq95Cu6w8ahtEEfBd41DCMpwF0XV8GHERdkP30vO3951c+YBiGUdJ+ReRmn5x7XZCu6xpwH/ArwzAeiSy+T9f1ycB0oC9y7vVoXbUlZwQQA6xuXhD5AG5BNSmKC2sUUIm6u/VBu3VTgHcjX/bNVgN65MtDYnvhlAELgM3NCwzDCAMakIiK3ep2j1kNTIn8WEyKLFvT6vH7gCIkdueUYRjlhmEsbZXgpALfQHUp3I2cd12erutTUXeKb2i3agqwJRKPZqtR3UmHR+I3kLaxCwDvIrE7X4ahzrOOyLnXdemoRObp1gsNw5hjGMZPkHOvx+uSLTlAZuTvsXbLi4Hs87wvoh3DMFYAKwB0XW+/OhPY0W5ZceRvNhLbCybyRf6f1st0XV+C6gL1OqqVpqO4uIAkVOzKDMNo7GAbid15ouv6H1HdXpqARYZh1Ou6LuddF6brejzwJKov/7F235uZdBwXULFpvnjuaJsRZ3lXRcfygRJd199DXfTuB+4zDON15DevKxsY+evWdf11YCQtLeIrkHOvx+uqLTmuyN+mdssbAcd53hdxZlx0HDdQsZPYdhG6rk9C9VV+JfKF/2li13598zYSu/Pn16i+//8AXo50KZTzrmv7A/B+c5eXdiR2XViku9lA1N39e4D5wIeoMTUzkfh1ZbGRv39HteZcArwBvCKx+3zoqi053shfe6v/BvWhqj//uyPOgBcVt9aavwzqkdh2CbquL0Z96W8ElkYWf5rYtV/fvI3E7jxpVU3tVtQg5juR867L0nX9S6huMfmdbHImsWu/jcTuHDMMwxdpiQtExmgAbNZ1fRCqy6ice12XL/L3IcMwnoj897bIjaGvIedej9dVW3KamwYz2i3PQPVBF13XMTqOG6ixGxLbC0zX9TuBl1Bd1+YbhtH8Rd5Z7OqA6sj6pA4qAknszjFd11N0XV+q67q5eZlhGCHUOIHeyHnXlS1DFfU4put6na7rdZHl/6vr+i4+OXaFwNF2y1pvI7E7DwzDqG+V4DTbQUt3Jzn3uqbm49u+O+EuIAc593q8rprkfAzUoKpfANE+zaOA9y7QPolP513UQHVzq2UzUZVpTiKxvaB0XV8OPIqaF+Cadj/c79IqLhEzgfWRC+p1qO+MKa2eT0ddZEvszq0MVMvbtOYFkfKno1CJjpx3Xdd1wCBUH/7mf6DK1M5HxW6UruuxrR4zE1WF7WPDMEpRVSynN6/Udd2CGvgssTvHdF0fFklOJ7dbNQZ1sSznXte1FXUejW+3PB8oQM69Hk8Lh8MXeh86pOv6A6hKNMtQk3A9hKqSkW8Yhq/zR4rzSdf1vwF9mycDjVQj2Yua0+PnwFhUf/QvNzcXS2wvjMgkhDuBV4Hb2632ou5KbgV+iZoQbQGqROYcwzBWR57jKVQXqWWo5vrHgGrDMC4+D2/hcytS3W4V6jy5BVXd8HvAHNRFcyNy3nUbuq6HgZsMw/ibribY3YkazP4t1B3mx1ETSt4b2f4W1GSTy1HjQb6NKv0+yDCMsgvwFj43IhN5bkDNbbQcVaXyVtR36EXACeTc67J0NWH5/6CO/ybUHHE/RiUzG5Fzr0frqi05oO5y/QU1H8t6VJWLOfKF0LVF7lzNQZVu3IKaGO2brfrDgsT2QrkKsAKXAyXt/j0SKU+8CHV3eRtqHoAvNic4EbcCbwP/Qg3g3Bt5XnEORUp9X4MqZfoc6sc6EZhiGMZROe+6r0i1wrmAGVWS//fA71DzezRv8ydU/O4HPkJdIM+Wi6xzL9KKvRB1zr2AuhE0DnX8d8i517UZhnE/8CPgAVSr9xLgCsMw1si51/N12ZYcIYQQQgghhPgsunJLjhBCCCGEEEKcMUlyhBBCCCGEED2KJDlCCCGEEEKIHkWSHCGEEEIIIUSPIkmOEEIIIYQQokeRJEcIIYQQQgjRo0iSI4QQQgghhOhRJMkRQgghhBBC9CiS5AghhBBCCCF6FElyhBBCCCGEED2KJDlCCCGEEEKIHuX/AH1SWlimcRE3AAAAAElFTkSuQmCC\\n\",\n      \"text/plain\": [\n       \"<Figure size 1000x500 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"info = mdl.get_training_info(model_id=1234)()\\n\",\n    \"_, ax = plt.subplots(figsize=(10, 5), dpi=100)\\n\",\n    \"info.tail(3)\\n\",\n    \"info.plot(y=['train_mse_loss', 'val_mse'], ax=ax)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"{'python': '3.7.4 (default, Aug 13 2019, 20:35:49) \\\\n[GCC 7.3.0]',\\n\",\n       \" 'system': '#60-Ubuntu SMP Tue Jul 2 18:22:20 UTC 2019',\\n\",\n       \" 'numpy': '1.16.4',\\n\",\n       \" 'torch': '1.1.0',\\n\",\n       \" 'xenonpy': '0.4.0.beta4',\\n\",\n       \" 'device': 'cuda:2',\\n\",\n       \" 'start': '2019/09/17 20:55:56',\\n\",\n       \" 'finish': '2019/09/17 21:03:04',\\n\",\n       \" 'time_elapsed': '5 days, 15:33:23.552799',\\n\",\n       \" 'author': 'Chang Liu',\\n\",\n       \" 'email': 'liu.chang@ism.ac.jp',\\n\",\n       \" 'dataset': 'materials project'}\"\n      ]\n     },\n     \"execution_count\": 12,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"mdl.get_training_env(model_id=1234)()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {\n    \"nbsphinx\": \"hidden\"\n   },\n   \"source\": [\n    \"Getting download url can be done in a similar way.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 13,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th>etag</th>\\n\",\n       \"      <th>url</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>1234</td>\\n\",\n       \"      <td>9274418b5ee2026ea8714b7edc7d012e-1</td>\\n\",\n       \"      <td>http://xenon.ism.ac.jp/mdl/inorganic.crystal.e...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>5678</td>\\n\",\n       \"      <td>c5a962fce76a773b208cc59631999a25-1</td>\\n\",\n       \"      <td>http://xenon.ism.ac.jp/mdl/inorganic.crystal.b...</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"     id                                etag  \\\\\\n\",\n       \"0  1234  9274418b5ee2026ea8714b7edc7d012e-1   \\n\",\n       \"1  5678  c5a962fce76a773b208cc59631999a25-1   \\n\",\n       \"\\n\",\n       \"                                                 url  \\n\",\n       \"0  http://xenon.ism.ac.jp/mdl/inorganic.crystal.e...  \\n\",\n       \"1  http://xenon.ism.ac.jp/mdl/inorganic.crystal.b...  \"\n      ]\n     },\n     \"execution_count\": 13,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"mdl.get_model_urls(1234, 5678)()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"The output dataframe contains the column named `url`. If you only want to get the string of `url`, just use `queryable` specification.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>url</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>http://xenon.ism.ac.jp/mdl/inorganic.crystal.e...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>http://xenon.ism.ac.jp/mdl/inorganic.crystal.b...</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                                 url\\n\",\n       \"0  http://xenon.ism.ac.jp/mdl/inorganic.crystal.e...\\n\",\n       \"1  http://xenon.ism.ac.jp/mdl/inorganic.crystal.b...\"\n      ]\n     },\n     \"execution_count\": 14,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"mdl.get_model_urls(1234, 5678)('url')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Also, if you don't want to get a dataframe or you want to control the output type yourself, you can set `return_json` to `True`.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[{'url': 'http://xenon.ism.ac.jp/mdl/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3.tar.gz'},\\n\",\n       \" {'url': 'http://xenon.ism.ac.jp/mdl/inorganic.crystal.band_gap/xenonpy.compositions/pytorch.nn.neural_network/290-168-132-111-1-$Nbe3TKMYM.tar.gz'}]\"\n      ]\n     },\n     \"execution_count\": 15,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"mdl.get_model_urls(1234, 5678)('url', return_json=True)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"You can use these urls to download models yourself, but we suggest you to use `mdl.pull`.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"\\u001b[0;31mSignature:\\u001b[0m\\n\",\n       \"\\u001b[0mmdl\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mpull\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m*\\u001b[0m\\u001b[0mmodel_ids\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mpandas\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mcore\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mseries\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mSeries\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mpandas\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mcore\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mframe\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mDataFrame\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0msave_to\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mstr\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;34m'.'\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m \\u001b[0;34m->\\u001b[0m \\u001b[0mpandas\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mcore\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mframe\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mDataFrame\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n       \"\\u001b[0;31mDocstring:\\u001b[0m\\n\",\n       \"Download model(s) from XenonPy.MDL server.\\n\",\n       \"\\n\",\n       \"Parameters\\n\",\n       \"----------\\n\",\n       \"model_ids\\n\",\n       \"    Model ids.\\n\",\n       \"    It can be given by a dataframe.\\n\",\n       \"    In this case, the column with name ``id`` will be used.\\n\",\n       \"save_to\\n\",\n       \"    Path to save models.\\n\",\n       \"\\n\",\n       \"Returns\\n\",\n       \"-------\\n\",\n       \"\\u001b[0;31mFile:\\u001b[0m      ~/projects/XenonPy/xenonpy/mdl/mdl.py\\n\",\n       \"\\u001b[0;31mType:\\u001b[0m      method\\n\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"mdl.pull?\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 17,\n   \"metadata\": {\n    \"nbsphinx\": \"hidden\"\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"100%|██████████| 2/2 [00:01<00:00,  1.49it/s]\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th>model</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>1234</td>\\n\",\n       \"      <td>/Users/liuchang/Google 云端硬盘/postdoctoral/tutor...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>5678</td>\\n\",\n       \"      <td>/Users/liuchang/Google 云端硬盘/postdoctoral/tutor...</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"     id                                              model\\n\",\n       \"0  1234  /Users/liuchang/Google 云端硬盘/postdoctoral/tutor...\\n\",\n       \"1  5678  /Users/liuchang/Google 云端硬盘/postdoctoral/tutor...\"\n      ]\n     },\n     \"execution_count\": 17,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"ret = mdl.pull(1234, 5678)\\n\",\n    \"ret\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"The column named `model` contains the local path of the downloaded models.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### upload model\\n\",\n    \"\\n\",\n    \"Uploading models is not yet availiable until we open the public registration. If you try to upload models, you will get ***'operation needs a logged in user and the corresponded api_key'*** error.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"ename\": \"ValueError\",\n     \"evalue\": \"operation needs a logged in user and the corresponded api_key\",\n     \"output_type\": \"error\",\n     \"traceback\": [\n      \"\\u001b[0;31m---------------------------------------------------------------------------\\u001b[0m\",\n      \"\\u001b[0;31mValueError\\u001b[0m                                Traceback (most recent call last)\",\n      \"\\u001b[0;32m<ipython-input-18-f862c734ea61>\\u001b[0m in \\u001b[0;36m<module>\\u001b[0;34m\\u001b[0m\\n\\u001b[1;32m     13\\u001b[0m     \\u001b[0mtraining_info\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0mdict\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0ma\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;36m1\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mb\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;36m2\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m     14\\u001b[0m     \\u001b[0msupplementary\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0mdict\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mtrue\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0;36m1\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;36m2\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;36m3\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;36m4\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mpred\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0;36m1\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;36m2\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;36m2\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;36m4\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0;32m---> 15\\u001b[0;31m )(file='data')\\n\\u001b[0m\",\n      \"\\u001b[0;32m~/projects/XenonPy/xenonpy/mdl/base.py\\u001b[0m in \\u001b[0;36m__call__\\u001b[0;34m(self, file, return_json, *querying_vars)\\u001b[0m\\n\\u001b[1;32m    104\\u001b[0m         \\u001b[0mret\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mret\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mjson\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    105\\u001b[0m         \\u001b[0;32mif\\u001b[0m \\u001b[0;34m'errors'\\u001b[0m \\u001b[0;32min\\u001b[0m \\u001b[0mret\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0;32m--> 106\\u001b[0;31m             \\u001b[0;32mraise\\u001b[0m \\u001b[0mValueError\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mret\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0;34m'errors'\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0;36m0\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0;34m'message'\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0m\\u001b[1;32m    107\\u001b[0m         \\u001b[0mquery_name\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m__class__\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m__name__\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    108\\u001b[0m         \\u001b[0mret\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mret\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0;34m'data'\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mquery_name\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0;36m0\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mlower\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m)\\u001b[0m \\u001b[0;34m+\\u001b[0m \\u001b[0mquery_name\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0;36m1\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n      \"\\u001b[0;31mValueError\\u001b[0m: operation needs a logged in user and the corresponded api_key\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"mdl.upload_model(\\n\",\n    \"    modelset_id=2, \\n\",\n    \"    describe=dict(\\n\",\n    \"        property='test2',\\n\",\n    \"        descriptor='test2',\\n\",\n    \"        method='test',\\n\",\n    \"        lang='test',\\n\",\n    \"        deprecated=True,\\n\",\n    \"        isRegression=True,\\n\",\n    \"        meanAbsError=1.11,\\n\",\n    \"        pearsonCorr=0.85,\\n\",\n    \"    ),\\n\",\n    \"    training_info=dict(a=1, b=2),\\n\",\n    \"    supplementary=dict(true=[1,2,3,4], pred=[1,2,2,4])\\n\",\n    \")(file='data')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### retrieve model\\n\",\n    \"\\n\",\n    \"You can use `xenonpy.model.training.Checker` to load the downloaded models. For example, to load the model with id **1234**:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 19,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.model.training import Checker\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 20,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"/usr/local/miniconda3/envs/xepy37/lib/python3.7/site-packages/ipykernel_launcher.py:1: FutureWarning: `item` has been deprecated and will be removed in a future version\\n\",\n      \"  \\\"\\\"\\\"Entry point for launching an IPython kernel.\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<Checker> includes:\\n\",\n       \"\\\"final_state\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/final_state.pth.s\\n\",\n       \"\\\"training_info\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/training_info.pd.xz\\n\",\n       \"\\\"model_class\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/model_class.pkl.z\\n\",\n       \"\\\"init_state\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/init_state.pth.s\\n\",\n       \"\\\"model\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/model.pth.m\\n\",\n       \"\\\"splitter\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/splitter.pkl.z\\n\",\n       \"\\\"model_structure\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/model_structure.pkl.z\\n\",\n       \"\\\"describe\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/describe.pkl.z\\n\",\n       \"\\\"data_indices\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/data_indices.pkl.z\\n\",\n       \"\\\"model_params\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/model_params.pkl.z\"\n      ]\n     },\n     \"execution_count\": 20,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"checker = Checker(ret[ret.id == 1234].model.item())\\n\",\n    \"checker\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Note that the random string *$WEnkZ6e3* in the file name is a magic number to guarantee that each model has a unique name.\\n\",\n    \"\\n\",\n    \"To load a model into python, call `checker.model` property.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 21,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=180, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(180, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=180, out_features=177, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(177, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_2): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=177, out_features=162, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(162, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=162, out_features=46, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(46, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_4): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=46, out_features=32, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(32, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=32, out_features=1, bias=True)\\n\",\n       \")\"\n      ]\n     },\n     \"execution_count\": 21,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"checker.model\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Use `checker.checkpoints` to list checkpoints.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 22,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<Checker> includes:\\n\",\n       \"\\\"mse_3\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mse_3.pth.s\\n\",\n       \"\\\"mse_1\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mse_1.pth.s\\n\",\n       \"\\\"mae_2\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mae_2.pth.s\\n\",\n       \"\\\"r2_5\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/r2_5.pth.s\\n\",\n       \"\\\"mse_5\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mse_5.pth.s\\n\",\n       \"\\\"r2_1\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/r2_1.pth.s\\n\",\n       \"\\\"mae_4\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mae_4.pth.s\\n\",\n       \"\\\"r2_3\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/r2_3.pth.s\\n\",\n       \"\\\"mae_3\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mae_3.pth.s\\n\",\n       \"\\\"r2_4\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/r2_4.pth.s\\n\",\n       \"\\\"mse_2\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mse_2.pth.s\\n\",\n       \"\\\"mae_1\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mae_1.pth.s\\n\",\n       \"\\\"mae_5\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mae_5.pth.s\\n\",\n       \"\\\"r2_2\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/r2_2.pth.s\\n\",\n       \"\\\"mse_4\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/mse_4.pth.s\\n\",\n       \"\\\"pearsonr_5\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/pearsonr_5.pth.s\\n\",\n       \"\\\"pearsonr_1\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/pearsonr_1.pth.s\\n\",\n       \"\\\"pearsonr_3\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/pearsonr_3.pth.s\\n\",\n       \"\\\"pearsonr_4\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/pearsonr_4.pth.s\\n\",\n       \"\\\"pearsonr_2\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.efermi/xenonpy.compositions/pytorch.nn.neural_network/290-180-177-162-46-32-1-$WEnkZ6e3/checkpoints/pearsonr_2.pth.s\"\n      ]\n     },\n     \"execution_count\": 22,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"checker.checkpoints\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"and `checker.checkpoints[<checkpoint name>]` to load information from a specific checkpoint.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 23,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"OrderedDict([('id', 'mse_3'),\\n\",\n       \"             ('iterations', 670),\\n\",\n       \"             ('model_state',\\n\",\n       \"              OrderedDict([('layer_0.linear.weight',\\n\",\n       \"                            tensor([[-2.7413,  2.2444, -0.6347,  ..., -0.4093,  1.7569,  0.3331],\\n\",\n       \"                                    [-3.4710,  3.1230, -1.5549,  ...,  0.7105,  0.1097, -0.5686],\\n\",\n       \"                                    [-1.0452, -0.0773, -1.8657,  ..., -2.4842, -2.4716,  0.0133],\\n\",\n       \"                                    ...,\\n\",\n       \"                                    [-2.8635,  2.0810, -1.8306,  ..., -0.7263,  0.1966,  0.6690],\\n\",\n       \"                                    [-1.4911,  0.3969, -2.4763,  ..., -2.1228, -2.3481, -0.2280],\\n\",\n       \"                                    [-4.5753,  3.2695, -3.0195,  ..., -1.5596, -0.2794,  0.9001]])),\\n\",\n       \"                           ('layer_0.linear.bias',\\n\",\n       \"                            tensor([ 1.8674e-01,  1.2594e+00,  6.3830e-03,  8.8717e-03, -2.2134e-02,\\n\",\n       \"                                     1.0698e+00,  1.3682e-01, -6.5420e-01, -2.2904e-02,  2.5760e-01,\\n\",\n       \"                                     1.3303e-02, -7.1474e-01,  5.6013e-02,  2.4740e-01,  3.6663e-02,\\n\",\n       \"                                    -4.6552e-02,  3.5276e-01,  4.7275e-01,  7.8601e-02,  1.7847e-01,\\n\",\n       \"                                     4.1219e-01,  1.1378e-01, -1.5997e-01, -4.0251e-02, -5.4254e-02,\\n\",\n       \"                                     4.1694e-01,  1.6805e-01,  6.6942e-01,  4.1481e-02,  1.0744e-01,\\n\",\n       \"                                     5.8623e-01,  9.0315e-01,  1.2878e+00,  5.1398e-01,  2.8303e-01,\\n\",\n       \"                                     9.7579e-02,  1.7690e-01,  1.6764e-01, -2.3814e-01,  2.6120e-01,\\n\",\n       \"                                     5.1376e-01,  2.8208e-01,  3.4689e-02,  4.8316e-02,  2.2929e-01,\\n\",\n       \"                                     4.6762e-02, -4.5354e-02,  1.7217e-03,  4.2179e-03,  5.0165e-01,\\n\",\n       \"                                     2.7844e-01, -1.4434e-01, -8.3940e-01,  9.0725e-02, -1.2393e-01,\\n\",\n       \"                                    -7.6476e-02, -5.0103e-02,  2.0573e-02, -4.6605e-01,  4.2584e-04,\\n\",\n       \"                                    -1.2431e-03,  1.7416e-02,  1.9315e-01, -8.2507e-02,  5.6182e-02,\\n\",\n       \"                                    -1.5245e-01, -1.6458e-02,  1.2927e-01, -1.0788e-01, -6.2298e-02,\\n\",\n       \"                                     3.5064e-01,  3.9070e-01,  1.4682e-02,  7.9495e-02,  3.9572e-01,\\n\",\n       \"                                     3.2543e-02,  3.1317e-02,  2.2445e-01, -5.1132e-01,  9.8786e-01,\\n\",\n       \"                                     8.7456e-02, -2.9127e-02,  2.8352e-01, -5.4528e-02, -3.7345e-02,\\n\",\n       \"                                     1.5468e-01,  8.5600e-01, -4.6745e-03,  4.3161e-01,  2.3493e-02,\\n\",\n       \"                                     2.1969e-01, -4.6591e-02,  4.1278e-02, -3.0714e-01,  3.9996e-02,\\n\",\n       \"                                     3.8986e-02,  5.1559e-02,  6.2200e-02,  5.3427e-02,  1.5805e-01,\\n\",\n       \"                                     4.4626e-01,  1.8942e-01,  3.0517e-02,  8.5060e-03,  2.3743e-01,\\n\",\n       \"                                     4.2354e-02,  1.4166e-02,  1.6934e-01,  4.8535e-01, -4.7722e-02,\\n\",\n       \"                                     4.4760e-01,  2.1024e-01, -3.7049e-02, -3.6345e-01,  1.1755e-01,\\n\",\n       \"                                    -8.5783e-02, -1.7177e-01, -2.4121e-02,  1.7525e-01,  5.6658e-01,\\n\",\n       \"                                    -1.1588e-01, -6.6737e-02,  1.9659e-01, -5.5139e-02,  2.2182e-01,\\n\",\n       \"                                     4.2854e-01,  9.8938e-01,  5.8801e-01,  3.2118e-01,  3.4174e-01,\\n\",\n       \"                                    -6.3782e-02,  2.4754e-01, -6.7626e-02,  2.2835e-01,  9.6599e-03,\\n\",\n       \"                                     1.3314e+00,  6.5396e-03,  2.8145e-02, -1.1071e+00,  5.0319e-01,\\n\",\n       \"                                     1.7117e-01,  5.1287e-01, -8.9040e-02, -1.4837e-01, -1.2847e-02,\\n\",\n       \"                                     3.7948e-01, -9.2569e-04, -3.3302e-03,  2.0668e-01,  3.3091e-04,\\n\",\n       \"                                     1.2669e-01, -6.7318e-02,  4.1707e-01, -5.6539e-02,  1.6370e-02,\\n\",\n       \"                                    -6.2774e-02,  2.8587e-02, -3.5977e-02,  3.8779e-01, -4.2425e-02,\\n\",\n       \"                                     7.1804e-03,  3.5864e-01,  1.6941e+00,  9.8432e-01,  2.3810e-02,\\n\",\n       \"                                     9.4629e-02,  1.3361e-01, -9.8752e-01, -2.1931e-02,  1.8669e+00,\\n\",\n       \"                                     4.0989e-02, -3.4537e-02,  3.9911e-01,  2.6089e-02,  2.7814e-02,\\n\",\n       \"                                     4.0855e-01,  4.8781e-02,  1.2521e+00,  1.6534e-03,  1.0430e+00])),\\n\",\n       \"                           ('layer_0.normalizer.weight',\\n\",\n       \"                            tensor([ 0.5104,  0.5791,  0.3863,  0.5147,  0.4768,  0.6566,  0.8734,  0.6645,\\n\",\n       \"                                     0.2071,  0.5819,  0.5087,  0.8138, -0.0092,  0.3608,  0.7038,  0.4413,\\n\",\n       \"                                     0.4833,  0.4180,  0.3368,  0.8463,  0.9392,  0.6924,  0.9296,  0.3491,\\n\",\n       \"                                     0.8069,  0.6619,  0.4793,  0.8459,  0.3441,  0.4590,  0.2950,  0.7371,\\n\",\n       \"                                     1.0435,  0.5632,  0.8104,  0.3961,  0.8829,  0.4403,  0.6482,  0.1659,\\n\",\n       \"                                     0.8168,  0.6445,  0.2457,  0.5658,  0.6175,  0.5902,  0.4836,  0.4961,\\n\",\n       \"                                     0.8358,  0.6547,  1.0532,  0.2442,  0.7796,  0.6544,  0.4556,  0.7625,\\n\",\n       \"                                     0.5656,  0.6227,  0.4305,  0.6411,  0.0154, -0.0189,  0.8002,  0.7829,\\n\",\n       \"                                    -0.3495,  0.5086,  0.8894,  0.7311,  0.2554,  0.6265,  0.2209,  0.7341,\\n\",\n       \"                                     0.3376,  0.6506,  0.5737,  0.6515,  0.3971,  0.6820,  0.2186,  0.9487,\\n\",\n       \"                                     0.6806,  0.0019,  0.4236, -0.0177,  0.5589,  0.8026,  1.0764,  0.4386,\\n\",\n       \"                                     0.9103,  0.5176,  0.5547,  0.7266,  0.5542,  0.8855,  0.5962,  0.2110,\\n\",\n       \"                                     0.5829,  0.4500,  0.4146,  0.7857,  0.3986,  0.2688,  0.6396,  0.1095,\\n\",\n       \"                                     0.3394, -0.0042,  0.8618,  0.8215,  0.6750,  0.5059,  0.6141,  0.3358,\\n\",\n       \"                                     0.3855,  0.3334,  0.8454,  0.6317,  1.0210,  0.8109,  0.2147,  0.5198,\\n\",\n       \"                                     0.0800,  0.7424,  0.2460,  0.8399,  0.8723,  0.5189,  0.7770,  1.0010,\\n\",\n       \"                                     0.2620,  0.8994,  0.6743,  0.4495,  0.7078,  0.3760,  0.3484,  0.6523,\\n\",\n       \"                                     0.6504, -0.3513,  0.3846,  0.3045,  0.6785,  0.9537,  0.3647,  0.3666,\\n\",\n       \"                                     0.5900,  0.8485,  0.4425,  0.5642,  0.6941,  0.4128,  1.0695,  0.4578,\\n\",\n       \"                                     0.3176,  0.6530,  0.7904,  0.7789,  0.7717,  0.3916,  0.4966,  0.3998,\\n\",\n       \"                                     0.4341,  0.5248,  0.5466,  0.6723,  0.2765,  0.4336,  0.2317,  0.4454,\\n\",\n       \"                                     0.1769,  1.0672,  0.7877,  0.2391,  0.3636,  0.2797,  0.3982,  0.2906,\\n\",\n       \"                                     0.4604,  0.6001,  0.2475,  0.8258])),\\n\",\n       \"                           ('layer_0.normalizer.bias',\\n\",\n       \"                            tensor([-0.1962, -0.0443, -0.2787, -0.0800, -0.4596, -0.1044, -0.1859,  0.1330,\\n\",\n       \"                                     0.0798, -0.1919, -0.1971, -0.2456, -0.0873, -0.3314, -0.1081, -0.3820,\\n\",\n       \"                                    -0.2372, -0.1259,  0.2093, -0.1731, -0.0683, -0.2343, -0.2495, -0.1465,\\n\",\n       \"                                    -0.4826,  0.0515, -0.1702, -0.4426,  0.0551, -0.0520, -0.1534, -0.0523,\\n\",\n       \"                                    -0.0462, -0.1940,  0.1447, -0.0863, -0.1390, -0.1070,  0.0972,  0.0248,\\n\",\n       \"                                    -0.4015, -0.2151, -0.1441,  0.0269, -0.0848, -0.1441, -0.3927, -0.4433,\\n\",\n       \"                                    -0.4028, -0.0485, -0.1162,  0.1694, -0.1743, -0.2001, -0.3018, -0.5739,\\n\",\n       \"                                     0.0599, -0.2187,  0.1332, -0.1887, -0.1445, -0.0679, -0.1672, -0.1422,\\n\",\n       \"                                    -0.3938,  0.2836,  0.0275,  0.1534,  0.1156, -0.2450, -0.1039, -0.1504,\\n\",\n       \"                                    -0.3893, -0.1549, -0.2389, -0.4126, -0.4205, -0.0470,  0.2166, -0.0405,\\n\",\n       \"                                    -0.1702, -0.0595,  0.0128, -0.1007,  0.0836,  0.0919,  0.1459, -0.2995,\\n\",\n       \"                                    -0.1740, -0.2381, -0.2750, -0.1821, -0.2118, -0.2194, -0.1279, -0.3674,\\n\",\n       \"                                     0.0930, -0.0964,  0.0278, -0.3024,  0.0738, -0.0719, -0.4944, -0.2141,\\n\",\n       \"                                    -0.1037, -0.0635, -0.3994, -0.1838, -0.1033, -0.1383, -0.0299,  0.0610,\\n\",\n       \"                                    -0.1442,  0.0914, -0.1958, -0.2726, -0.2943, -0.1576,  0.1738,  0.0190,\\n\",\n       \"                                     0.1938, -0.0365,  0.1417, -0.1462, -0.3113,  0.0542, -0.1261, -0.2680,\\n\",\n       \"                                    -0.0870, -0.1613, -0.4117, -0.0631, -0.3835, -0.0387, -0.0150,  0.1125,\\n\",\n       \"                                    -0.2066, -0.4758,  0.3709, -0.0092, -0.2423, -0.5018,  0.0690,  0.0409,\\n\",\n       \"                                    -0.1773, -0.2771,  0.0214, -0.3464, -0.0111, -0.1203, -0.2852, -0.3696,\\n\",\n       \"                                    -0.0033, -0.0295, -0.1827, -0.1715, -0.3728,  0.0648,  0.0032, -0.2143,\\n\",\n       \"                                    -0.0813, -0.1441,  0.3781, -0.2067, -0.0122,  0.0530, -0.0088,  0.1383,\\n\",\n       \"                                     0.0448,  0.1684, -0.1943, -0.0861,  0.1116, -0.2284, -0.0506, -0.0290,\\n\",\n       \"                                    -0.1651,  0.2154, -0.3402, -0.0656])),\\n\",\n       \"                           ('layer_0.normalizer.running_mean',\\n\",\n       \"                            tensor([-1.2129e+06, -2.8267e+05, -1.8897e+05,  3.0676e+05, -3.7214e+05,\\n\",\n       \"                                     2.1488e+05, -1.3920e+06,  3.9283e+05, -2.0499e+05, -7.2328e+05,\\n\",\n       \"                                     1.0294e+06, -9.7885e+04, -8.7283e+05,  1.5692e+06,  2.8840e+05,\\n\",\n       \"                                    -3.6137e+05, -3.1562e+05, -2.7778e+05, -3.0051e+05, -1.0735e+06,\\n\",\n       \"                                    -1.8500e+05, -2.7350e+05, -2.9411e+05,  1.1861e+06, -3.7914e+05,\\n\",\n       \"                                    -1.7805e+05, -1.1815e+06, -3.5938e+05,  6.2004e+05, -7.6983e+05,\\n\",\n       \"                                     3.5743e+05, -2.6413e+05, -1.4222e+05, -1.5700e+05, -5.4438e+03,\\n\",\n       \"                                    -1.1430e+06,  1.6714e+05, -1.1032e+06, -7.9594e+03,  2.0885e+05,\\n\",\n       \"                                    -5.4440e+05, -6.4795e+05,  5.7594e+05, -2.3447e+05, -7.4664e+05,\\n\",\n       \"                                     7.4651e+05, -7.0639e+05, -6.9201e+05, -2.2437e+05,  1.0384e+05,\\n\",\n       \"                                    -8.4054e+05,  6.0643e+05,  3.3801e+03, -3.2249e+05, -4.2711e+05,\\n\",\n       \"                                    -1.1043e+05, -2.9549e+05,  1.0297e+06, -1.1715e+05,  1.2755e+05,\\n\",\n       \"                                     7.3041e+05,  8.6747e+05, -1.7673e+05, -7.2339e+04, -2.5830e+06,\\n\",\n       \"                                    -6.3911e+04,  4.1610e+05,  1.6950e+05, -3.6926e+03, -4.5985e+05,\\n\",\n       \"                                     2.6051e+05, -7.6430e+05,  1.2047e+06, -4.1445e+05, -6.9484e+05,\\n\",\n       \"                                    -9.0072e+05,  1.4235e+06,  3.1018e+05, -2.3230e+04, -2.7941e+05,\\n\",\n       \"                                    -3.4013e+04,  3.8489e+04, -6.6028e+05,  3.6265e+05,  1.4223e+06,\\n\",\n       \"                                    -1.5331e+05, -1.1047e+05, -8.2704e+05, -1.0100e+05, -5.6225e+04,\\n\",\n       \"                                    -1.0116e+06,  5.0040e+05, -1.1833e+06, -7.6824e+04,  1.3367e+06,\\n\",\n       \"                                     2.0518e+06,  5.9261e+05, -3.5650e+05,  1.5055e+05, -2.9754e+05,\\n\",\n       \"                                    -2.4155e+05, -1.4951e+06,  6.6657e+05,  6.3000e+04,  6.2948e+05,\\n\",\n       \"                                    -4.8433e+05, -4.4355e+05, -1.0859e+05, -2.5631e+05,  4.4660e+05,\\n\",\n       \"                                    -2.3497e+05,  2.0366e+04,  1.9218e+05, -2.9244e+05, -3.2546e+05,\\n\",\n       \"                                    -5.2584e+05, -7.7124e+04,  3.7811e+05, -2.3890e+05, -1.7612e+05,\\n\",\n       \"                                    -5.7066e+05,  4.8926e+04, -2.7278e+05,  9.3206e+05, -2.6738e+05,\\n\",\n       \"                                    -2.6777e+05, -1.4219e+05, -4.1422e+05,  7.3759e+05, -6.6235e+05,\\n\",\n       \"                                     1.0376e+06, -2.9605e+05,  4.3901e+04, -1.4490e+04, -1.0147e+05,\\n\",\n       \"                                    -2.4937e+04, -5.1361e+04, -1.7725e+06,  2.0963e+04,  4.7144e+05,\\n\",\n       \"                                    -9.8638e+05, -4.2225e+05,  7.8836e+04,  7.1857e+04, -4.3700e+02,\\n\",\n       \"                                    -5.0268e+05,  3.0922e+05, -1.3685e+05, -7.1152e+05, -3.0388e+05,\\n\",\n       \"                                    -1.3728e+05,  8.0650e+05, -2.1282e+05,  6.7584e+05, -2.0512e+05,\\n\",\n       \"                                    -1.5178e+05, -6.8367e+05,  4.0433e+05, -4.0490e+05,  8.2663e+05,\\n\",\n       \"                                    -2.6122e+05, -7.7120e+05, -7.1985e+03, -3.4465e+05,  2.2040e+05,\\n\",\n       \"                                    -4.8741e+05, -7.2770e+05, -2.9618e+04,  4.6617e+05, -7.7764e+04,\\n\",\n       \"                                    -3.3846e+05,  1.5320e+05, -6.9355e+04, -3.7454e+05, -1.2436e+05,\\n\",\n       \"                                     8.0627e+05, -1.0685e+06, -1.6126e+05,  1.0174e+06, -2.2256e+05])),\\n\",\n       \"                           ('layer_0.normalizer.running_var',\\n\",\n       \"                            tensor([2.8734e+12, 1.0846e+11, 4.1629e+12, 5.6613e+11, 3.7155e+12, 1.1434e+11,\\n\",\n       \"                                    1.0065e+13, 3.2466e+11, 8.6504e+11, 7.8276e+11, 1.9834e+12, 4.1663e+10,\\n\",\n       \"                                    2.1929e+12, 1.0113e+13, 1.1670e+12, 1.8113e+12, 2.1190e+11, 2.4035e+11,\\n\",\n       \"                                    6.7875e+11, 5.2790e+12, 1.9742e+11, 6.1139e+11, 4.2168e+11, 1.4509e+12,\\n\",\n       \"                                    1.2841e+12, 1.9323e+11, 1.2050e+12, 1.4804e+11, 1.1170e+12, 3.4495e+12,\\n\",\n       \"                                    5.7916e+11, 2.9058e+11, 1.1115e+11, 5.0044e+10, 2.3590e+10, 1.5554e+12,\\n\",\n       \"                                    7.8063e+10, 3.3613e+12, 3.5218e+11, 1.0136e+11, 3.4714e+11, 1.1977e+12,\\n\",\n       \"                                    3.1281e+11, 2.4396e+11, 2.0106e+12, 7.3961e+11, 2.3273e+12, 2.2810e+12,\\n\",\n       \"                                    6.7913e+11, 3.6403e+10, 4.0202e+12, 1.7135e+12, 1.9181e+10, 4.7717e+11,\\n\",\n       \"                                    4.6237e+11, 6.4884e+11, 7.9020e+11, 6.5175e+11, 1.7558e+11, 1.2140e+12,\\n\",\n       \"                                    9.9990e+11, 1.6053e+12, 5.6199e+11, 8.0261e+10, 4.2270e+12, 4.0093e+10,\\n\",\n       \"                                    1.7091e+11, 7.3718e+10, 3.5427e+10, 1.1907e+12, 1.8352e+11, 2.5166e+12,\\n\",\n       \"                                    1.9807e+12, 1.3332e+12, 3.2925e+11, 1.2385e+12, 1.7686e+12, 3.5039e+11,\\n\",\n       \"                                    8.4248e+10, 4.6650e+11, 1.1013e+11, 3.3575e+12, 5.2994e+11, 6.9099e+11,\\n\",\n       \"                                    1.7189e+12, 1.5802e+11, 8.0225e+10, 2.2410e+12, 6.5210e+10, 9.8536e+10,\\n\",\n       \"                                    1.2242e+12, 1.6420e+12, 2.2263e+12, 9.3532e+10, 3.2451e+12, 4.3126e+12,\\n\",\n       \"                                    1.7026e+12, 1.4901e+12, 1.2225e+11, 2.8621e+11, 2.1624e+11, 2.8024e+12,\\n\",\n       \"                                    3.3252e+11, 3.8007e+11, 2.4959e+12, 4.3159e+11, 1.9044e+12, 9.7064e+10,\\n\",\n       \"                                    1.3783e+11, 2.6057e+11, 5.2831e+11, 2.9040e+11, 1.8034e+12, 4.2261e+11,\\n\",\n       \"                                    5.9581e+11, 2.3897e+12, 2.9622e+10, 2.5139e+11, 3.8814e+11, 2.0273e+11,\\n\",\n       \"                                    1.0169e+12, 6.6312e+11, 3.9934e+11, 1.5518e+12, 1.6059e+11, 2.0429e+11,\\n\",\n       \"                                    7.3254e+10, 3.9329e+11, 5.0400e+12, 2.5599e+12, 1.3495e+12, 3.0244e+11,\\n\",\n       \"                                    4.8005e+10, 5.1000e+10, 3.0274e+11, 2.7907e+10, 5.9713e+11, 2.4381e+12,\\n\",\n       \"                                    9.9436e+09, 8.3648e+11, 3.2557e+12, 4.1370e+11, 5.8659e+10, 3.1412e+10,\\n\",\n       \"                                    8.6003e+10, 9.1349e+11, 2.6566e+11, 6.0918e+11, 2.4435e+12, 4.5672e+11,\\n\",\n       \"                                    8.8486e+10, 6.6567e+11, 1.4290e+11, 4.8815e+12, 4.3067e+11, 1.8827e+11,\\n\",\n       \"                                    4.8827e+12, 2.1159e+11, 9.6153e+11, 1.4606e+12, 4.5325e+11, 4.5757e+11,\\n\",\n       \"                                    1.0029e+10, 1.4708e+11, 6.1296e+11, 6.3223e+11, 4.4463e+11, 1.1444e+10,\\n\",\n       \"                                    1.1462e+12, 5.3529e+10, 6.8962e+11, 5.9348e+11, 2.1475e+11, 4.1514e+11,\\n\",\n       \"                                    1.0480e+12, 1.2999e+12, 3.4963e+12, 8.6104e+10, 9.5250e+11, 2.2460e+11])),\\n\",\n       \"                           ('layer_0.normalizer.num_batches_tracked',\\n\",\n       \"                            tensor(670)),\\n\",\n       \"                           ('layer_1.linear.weight',\\n\",\n       \"                            tensor([[-0.3181, -0.0467,  0.1220,  ..., -0.3037,  0.0751, -0.5011],\\n\",\n       \"                                    [ 0.1769,  0.0907,  0.6257,  ...,  0.0173,  0.1333,  0.4019],\\n\",\n       \"                                    [ 0.0093, -0.2277, -0.0919,  ..., -0.2902, -0.1235, -0.2536],\\n\",\n       \"                                    ...,\\n\",\n       \"                                    [ 0.4216,  0.1898, -0.1141,  ...,  0.1129, -0.0119,  0.1866],\\n\",\n       \"                                    [-0.0128,  0.0372, -0.3504,  ..., -0.1693, -0.2387, -0.3789],\\n\",\n       \"                                    [-0.1159,  0.1799,  0.2841,  ...,  0.1712,  0.0442, -0.0150]])),\\n\",\n       \"                           ('layer_1.linear.bias',\\n\",\n       \"                            tensor([ 0.4272, -0.9039,  0.1904, -0.2160,  0.4101, -0.1103,  0.4987,  0.2544,\\n\",\n       \"                                     0.1019,  0.0742,  0.6390,  0.0388,  0.0458, -0.6708, -0.0971, -0.1611,\\n\",\n       \"                                     0.0943, -1.1995, -0.0920,  0.3232,  0.2385, -0.1232,  0.1995, -0.4173,\\n\",\n       \"                                    -0.0610,  0.0653,  0.1749,  0.0328,  0.4999, -0.2223,  0.0241,  0.7735,\\n\",\n       \"                                     0.1619,  0.0434, -0.1896, -0.3395,  0.0403,  0.3407, -0.3957,  0.1370,\\n\",\n       \"                                     0.5093,  0.2799,  0.0323, -0.0116,  0.2430,  0.2210, -0.0503,  0.0454,\\n\",\n       \"                                    -0.0668,  0.4199,  0.1628, -1.0166,  0.4744, -0.3817,  0.1295, -0.2087,\\n\",\n       \"                                     0.5544,  0.1096,  0.0749, -1.4452,  0.0350, -0.5916,  0.0621,  0.0480,\\n\",\n       \"                                     0.1958,  0.4391,  0.5505,  0.2575,  0.0325,  0.3898,  0.3660,  0.2256,\\n\",\n       \"                                     0.4397, -0.0505,  0.3201,  0.3299,  0.1729,  0.2120,  0.3927,  0.1806,\\n\",\n       \"                                    -0.0665,  0.2679,  0.0802,  0.2549,  0.3061, -0.5109,  0.2203, -0.1280,\\n\",\n       \"                                     0.2171, -0.0454,  0.3390,  0.1481,  0.8642,  0.1444, -0.2233, -0.2728,\\n\",\n       \"                                    -0.1692,  0.2542,  0.1593, -0.4494, -0.0971,  0.2951, -0.1180,  0.2975,\\n\",\n       \"                                     0.1763, -0.0883,  0.1806,  0.2068, -0.1619,  0.0125, -0.0279,  0.3348,\\n\",\n       \"                                     0.5742, -0.1454,  0.1260,  0.6690,  0.3612, -0.0294,  0.1213,  0.4081,\\n\",\n       \"                                    -0.2089,  0.2120,  0.2244,  0.4372, -0.0115,  0.7784,  0.1602, -0.0813,\\n\",\n       \"                                    -0.0493, -0.1658,  0.3238,  0.2760, -0.0432, -0.0420, -0.0659,  0.3089,\\n\",\n       \"                                     0.0190,  0.5050,  0.6044, -0.2358,  0.2355, -0.2841,  0.0530,  0.4726,\\n\",\n       \"                                     0.5186,  0.2180,  0.2962, -0.1304,  0.1614,  0.3440,  0.2312,  0.6344,\\n\",\n       \"                                    -0.3127, -0.2918,  0.2700, -0.1242,  0.6109, -0.1531,  0.0123,  0.2946,\\n\",\n       \"                                     0.5476,  0.4071,  0.2653, -0.4429,  0.1034, -0.0617,  0.2970, -0.0116,\\n\",\n       \"                                    -0.3955, -0.0198,  0.6731,  0.4815,  0.4867,  0.0948,  0.2610,  0.1566,\\n\",\n       \"                                     0.0384])),\\n\",\n       \"                           ('layer_1.normalizer.weight',\\n\",\n       \"                            tensor([ 0.7724,  0.5528,  0.7754,  0.7696,  0.2109,  0.4952,  0.7166,  0.2034,\\n\",\n       \"                                     0.3974,  0.4473,  0.4182,  0.4169,  0.8112,  0.9732,  0.6718,  0.6471,\\n\",\n       \"                                     0.6182,  0.2758,  0.2656,  0.7420,  0.8008,  0.0970,  0.3573,  0.7887,\\n\",\n       \"                                     0.4323,  0.7148,  0.8219,  0.4425,  0.2586,  0.8524,  0.7631, -0.1480,\\n\",\n       \"                                     0.6211,  0.7283,  0.7019,  0.6664,  0.7825,  0.2799,  0.7122,  0.8373,\\n\",\n       \"                                     0.3143,  0.5367,  0.8127,  0.5353,  0.6630,  0.7752,  0.2445,  0.5905,\\n\",\n       \"                                     0.2394,  0.8094,  0.6661,  0.2757,  0.3573,  0.5570,  0.7235,  0.6305,\\n\",\n       \"                                     0.8710,  0.4753,  0.3409,  0.3190,  0.6961,  0.5270,  0.6013,  0.0756,\\n\",\n       \"                                     0.7081,  0.5906,  0.1810,  0.7286, -0.0057,  0.8344,  0.4059,  0.1987,\\n\",\n       \"                                     0.7828,  0.7904,  0.8655,  0.4139,  0.7423,  0.3984,  0.7705,  0.7546,\\n\",\n       \"                                     0.5489,  0.4179,  0.3176,  0.3345,  0.7589,  0.3580,  0.1110,  0.5608,\\n\",\n       \"                                     0.5362,  0.0094,  0.2373,  0.3635,  0.7349,  0.5421,  0.7940,  0.8640,\\n\",\n       \"                                     0.0260,  0.2689,  0.6665,  0.7943,  0.5509,  0.4087,  0.7532,  0.4168,\\n\",\n       \"                                     0.9124,  0.0878,  0.5972,  0.6600,  0.7846,  0.3822,  0.3208,  0.6693,\\n\",\n       \"                                     0.4407,  0.4913,  0.7079,  0.6869,  0.3143,  0.7635,  0.7462,  0.1772,\\n\",\n       \"                                     0.7289,  0.0499,  0.5132,  0.6099,  0.8893,  0.6448,  0.4385,  0.7160,\\n\",\n       \"                                     0.6739,  0.3674,  0.1015,  0.7265, -0.0049,  0.0171,  0.0766,  0.4091,\\n\",\n       \"                                     0.7618,  0.4541,  0.7765,  0.9321,  0.0817,  0.4848,  0.0063,  0.3314,\\n\",\n       \"                                     0.5573,  0.7276,  0.2552,  0.6275,  0.5366, -0.2922,  0.0431,  0.6978,\\n\",\n       \"                                     0.8908,  0.6146,  0.4422,  0.6265,  0.3998,  0.7618,  0.8459,  0.6532,\\n\",\n       \"                                     0.6608,  0.6642,  0.3993,  0.7534,  0.8476,  0.7271,  0.7883,  0.5109,\\n\",\n       \"                                     0.6671,  0.3548, -0.3233,  0.6174,  0.6103,  0.8735,  0.1984,  0.8545,\\n\",\n       \"                                     0.5555])),\\n\",\n       \"                           ('layer_1.normalizer.bias',\\n\",\n       \"                            tensor([-4.8687e-01, -6.5793e-01, -1.7362e-01, -3.0067e-01,  1.2581e-01,\\n\",\n       \"                                    -2.2906e-01,  3.5819e-02,  5.0886e-02, -2.7870e-01, -1.7128e-01,\\n\",\n       \"                                     3.4052e-02, -4.9039e-01, -5.6463e-01, -5.9361e-01, -4.0186e-01,\\n\",\n       \"                                    -9.2585e-02, -2.2541e-01, -7.4718e-01, -5.0870e-03, -2.2716e-01,\\n\",\n       \"                                    -2.0561e-02, -2.0329e-01, -8.4164e-02, -5.8757e-01, -1.9374e-01,\\n\",\n       \"                                    -3.3367e-01, -2.2995e-01, -1.2856e-01,  9.6702e-03, -3.8536e-01,\\n\",\n       \"                                    -3.0355e-01, -4.4498e-01, -1.8743e-01, -1.9710e-01, -5.3411e-01,\\n\",\n       \"                                    -6.9149e-01, -4.0172e-01,  2.4301e-02, -3.2459e-01, -9.3060e-02,\\n\",\n       \"                                    -3.6030e-02, -1.1579e-01, -2.8658e-01, -2.4621e-01, -6.2366e-03,\\n\",\n       \"                                    -1.2196e-01, -1.3555e-01,  7.4362e-03, -2.5930e-01, -4.3468e-01,\\n\",\n       \"                                    -1.5946e-01, -6.9949e-01, -4.7001e-02, -4.9838e-01, -2.6839e-01,\\n\",\n       \"                                    -5.2396e-01, -1.5207e-01, -1.1730e-01, -2.5288e-01, -6.5695e-01,\\n\",\n       \"                                    -1.9395e-01, -4.9804e-01, -1.9134e-01, -1.1425e-01, -2.8989e-01,\\n\",\n       \"                                    -2.3164e-01,  1.1617e-01, -2.5385e-01, -9.5173e-02, -3.7006e-01,\\n\",\n       \"                                     5.5945e-02,  2.0635e-01, -3.8304e-01, -4.2781e-01, -1.5396e-01,\\n\",\n       \"                                    -1.1947e-01, -2.7199e-02, -2.8786e-01, -2.0645e-01, -1.5319e-01,\\n\",\n       \"                                    -3.2556e-01, -1.1684e-01,  5.5866e-03, -3.4911e-01, -2.7693e-01,\\n\",\n       \"                                    -3.4123e-01,  2.0492e-01, -3.2356e-01, -1.6581e-01, -9.6886e-02,\\n\",\n       \"                                     1.1676e-01, -1.9239e-01, -1.6082e-01, -7.9961e-02, -5.2100e-01,\\n\",\n       \"                                    -5.1340e-01, -1.8974e-01,  2.5859e-02, -1.3545e-01, -3.9954e-01,\\n\",\n       \"                                    -7.8536e-02, -2.9645e-01, -4.8769e-01,  2.5232e-02,  1.1020e-01,\\n\",\n       \"                                    -1.9782e-01, -1.7286e-01, -2.3323e-01, -4.2869e-01,  3.8918e-02,\\n\",\n       \"                                    -1.7333e-01, -3.7193e-01,  1.0578e-01, -9.5304e-02, -4.1619e-01,\\n\",\n       \"                                    -2.1274e-02,  2.9453e-01, -2.1269e-01, -1.0715e-01,  1.2427e-01,\\n\",\n       \"                                    -1.1718e-01,  1.1451e-01, -4.9374e-04, -1.6703e-01, -1.1600e-01,\\n\",\n       \"                                     7.1238e-02,  2.0437e-02, -1.5701e-01, -8.9630e-02, -2.1474e-01,\\n\",\n       \"                                     1.4690e-01,  1.7623e-02, -5.2768e-02, -8.0910e-02,  1.1171e-01,\\n\",\n       \"                                     9.7640e-02, -4.6893e-01,  2.8726e-02, -2.6173e-01, -6.1300e-01,\\n\",\n       \"                                     1.5880e-01, -2.9128e-01, -4.5310e-02,  1.8769e-01, -3.5182e-01,\\n\",\n       \"                                    -3.7850e-01,  1.3322e-03, -1.7291e-01, -1.0457e-01, -4.1100e-01,\\n\",\n       \"                                    -9.8451e-02, -4.5245e-01, -7.2406e-01, -4.2713e-01,  3.8897e-02,\\n\",\n       \"                                    -3.4561e-01, -4.0211e-02, -3.8704e-01, -3.5258e-01, -2.0678e-01,\\n\",\n       \"                                    -3.6973e-01, -3.4208e-01, -3.0089e-02, -4.2235e-01, -1.4618e-01,\\n\",\n       \"                                     1.4217e-01, -1.5353e-01, -1.9246e-01, -5.5187e-01, -9.1403e-02,\\n\",\n       \"                                    -4.0453e-01, -1.8983e-01, -1.1410e-01, -3.3431e-01,  1.1839e-01,\\n\",\n       \"                                    -1.3737e-01, -2.5578e-01])),\\n\",\n       \"                           ('layer_1.normalizer.running_mean',\\n\",\n       \"                            tensor([-1.0012,  0.9059, -0.5933,  1.2517, -0.1599, -0.2621, -0.5754, -0.7055,\\n\",\n       \"                                    -0.1043,  0.3594, -0.0773, -0.7850, -0.7410, -0.4356, -0.0951, -0.8019,\\n\",\n       \"                                     0.1038,  0.1979, -1.2412, -0.1483, -0.2528, -1.2501, -0.0598,  0.3535,\\n\",\n       \"                                    -0.0999, -0.4959, -0.0107, -1.2390, -0.0301, -0.1888,  0.5956, -0.5109,\\n\",\n       \"                                    -0.9230,  0.5715,  0.1734,  0.0887, -0.2923, -0.4678,  0.1751, -0.5447,\\n\",\n       \"                                    -1.0108,  0.0278, -0.5504,  0.2809, -0.8226, -0.3325, -0.2127, -0.6235,\\n\",\n       \"                                     0.2548,  0.5462,  0.0092,  0.2038, -0.6879, -0.1080, -1.1428,  0.1823,\\n\",\n       \"                                    -0.1586, -0.4211,  0.4230,  1.0469, -0.1016,  0.4202, -0.1107, -1.6935,\\n\",\n       \"                                    -0.0985, -0.3614, -0.2401, -0.4718,  0.2483, -0.3143,  0.4494,  0.2874,\\n\",\n       \"                                    -0.5771, -0.1627,  0.1163, -0.6621, -0.3129, -0.2038, -0.2718, -0.7657,\\n\",\n       \"                                     0.0480,  0.9996, -0.6919,  1.5673,  0.0111, -0.5343,  0.6665,  1.6854,\\n\",\n       \"                                    -0.9618,  0.1406, -1.0776,  0.3344, -0.9839, -0.1319,  0.0170,  1.1883,\\n\",\n       \"                                    -1.3508, -0.4064, -0.9850,  0.1428,  0.9735, -0.3728, -0.0558, -0.4150,\\n\",\n       \"                                     0.0863, -1.1260, -0.2841, -0.0181, -0.5096, -0.4574,  0.2621, -0.2732,\\n\",\n       \"                                    -0.3459,  0.3559, -0.1139, -0.2430,  0.4331, -0.7160,  0.1169,  0.2474,\\n\",\n       \"                                    -0.6933,  0.7129, -0.8441, -0.0880, -0.1472, -0.2216, -0.6946, -0.9052,\\n\",\n       \"                                    -1.0473,  0.4883, -0.7345, -0.5874, -0.1417, -0.5711,  0.1673, -1.0069,\\n\",\n       \"                                    -0.2246,  0.5413, -0.9195, -0.5592, -0.5670, -0.2906, -1.0233,  0.0110,\\n\",\n       \"                                    -0.4851,  0.3339, -1.1661, -1.1126,  0.0384,  0.0168, -1.2003, -0.5942,\\n\",\n       \"                                     0.7896,  0.4963, -0.3686,  0.1805,  0.1795, -0.1698,  0.3953, -0.3368,\\n\",\n       \"                                    -0.4614, -0.0705, -0.2032,  0.3827, -0.1626, -0.1555, -1.2359,  0.2446,\\n\",\n       \"                                    -0.8220,  0.3409,  0.4112, -0.0505, -0.7286,  0.9226, -0.3724, -0.6035,\\n\",\n       \"                                    -0.2093])),\\n\",\n       \"                           ('layer_1.normalizer.running_var',\\n\",\n       \"                            tensor([ 1.5784,  4.3603,  3.0406,  3.9843,  2.5842,  1.6847,  4.2242,  2.3038,\\n\",\n       \"                                     1.4713,  2.3048,  3.4151,  1.8586,  2.6211,  1.4248,  1.6324,  3.5756,\\n\",\n       \"                                     1.8121, 11.3280,  3.3998,  2.4089,  1.8012,  1.3024,  2.6088,  1.7034,\\n\",\n       \"                                     1.7349,  2.2189,  2.0389,  2.4620,  1.6277,  1.7833,  1.6252,  2.9811,\\n\",\n       \"                                     3.4582,  1.0297,  1.1774,  1.5030,  1.6943,  2.2126,  0.9261,  3.2761,\\n\",\n       \"                                     3.3161,  2.1361,  1.7398,  1.4311,  3.6328,  2.6587,  1.8304,  2.9714,\\n\",\n       \"                                     1.9231,  1.7223,  1.9149,  9.2152,  4.8232,  1.8995,  2.0808,  1.6926,\\n\",\n       \"                                     1.0224,  2.7655,  1.2581, 10.1292,  1.2400,  2.4070,  1.8323,  3.7722,\\n\",\n       \"                                     2.4576,  2.8575,  3.3780,  1.9544,  0.2371,  2.2880,  3.0949,  2.1179,\\n\",\n       \"                                     1.9815,  1.7560,  1.2390,  3.1567,  2.6115,  1.3628,  2.7039,  1.5545,\\n\",\n       \"                                     1.0431,  2.3704,  4.2586,  4.2653,  1.0075,  2.4698,  2.4783,  3.4799,\\n\",\n       \"                                     4.7091,  0.1635,  3.5400,  1.0513,  3.8962,  2.7156,  1.4790,  2.0708,\\n\",\n       \"                                     1.2599,  3.2595,  3.0823,  1.0620,  3.8206,  3.5075,  1.2568,  3.8073,\\n\",\n       \"                                     1.5245,  0.6714,  2.0583,  1.1045,  1.7741,  1.8926,  2.9702,  1.6884,\\n\",\n       \"                                     4.6135,  1.3068,  1.2621,  2.7422,  1.9513,  2.1740,  1.9496,  2.4949,\\n\",\n       \"                                     4.0215,  1.8097,  2.8780,  1.5046,  1.2563,  3.1307,  4.7151,  4.2565,\\n\",\n       \"                                     2.1220,  1.8459,  4.7927,  3.1600,  0.0777,  0.2535,  1.7539,  2.6288,\\n\",\n       \"                                     1.2955,  2.9272,  1.5976,  1.9883,  2.9310,  1.9140,  0.8124,  1.6121,\\n\",\n       \"                                     1.0627,  2.2470,  3.8162,  3.4301,  5.9179, 10.3987,  1.6794,  1.4560,\\n\",\n       \"                                     1.0918,  1.5822,  2.9202,  1.4964,  3.1723,  0.9711,  1.6405,  3.9672,\\n\",\n       \"                                     1.6582,  1.3467,  2.9507,  1.8645,  2.6762,  3.0827,  3.7867,  1.4285,\\n\",\n       \"                                     2.0862,  2.0662,  7.5074,  2.5092,  2.6214,  2.2816,  2.0605,  2.0044,\\n\",\n       \"                                     2.0017])),\\n\",\n       \"                           ('layer_1.normalizer.num_batches_tracked',\\n\",\n       \"                            tensor(670)),\\n\",\n       \"                           ('layer_2.linear.weight',\\n\",\n       \"                            tensor([[ 0.1494, -0.1234, -0.2821,  ..., -0.1532, -0.0732, -0.1128],\\n\",\n       \"                                    [-0.0551,  0.0989, -0.3374,  ..., -0.0806, -0.0468,  0.0616],\\n\",\n       \"                                    [-0.0130,  0.0661, -0.1006,  ...,  0.2441,  0.1385,  0.0855],\\n\",\n       \"                                    ...,\\n\",\n       \"                                    [ 0.1844, -0.2233, -0.3211,  ...,  0.0852, -0.2506,  0.1146],\\n\",\n       \"                                    [ 0.2989, -0.0142,  0.0532,  ...,  0.2498,  0.1741,  0.1107],\\n\",\n       \"                                    [ 0.0098,  0.3458,  0.2180,  ..., -0.1585,  0.2146,  0.1526]])),\\n\",\n       \"                           ('layer_2.linear.bias',\\n\",\n       \"                            tensor([ 3.0239e-01, -5.3302e-02,  2.2736e-04,  2.0087e-01, -3.8188e-02,\\n\",\n       \"                                    -1.3411e-01,  1.2893e-01, -2.1880e-02, -5.9000e-02, -5.4540e-02,\\n\",\n       \"                                     5.2248e-02,  1.0601e-01,  2.3720e-01,  1.8199e-01, -8.2406e-02,\\n\",\n       \"                                     2.6802e-01,  2.7499e-01,  1.5136e-01,  6.0337e-02,  5.2905e-02,\\n\",\n       \"                                     2.6242e-01,  5.0922e-01,  1.0646e-01,  6.9072e-02,  5.6843e-01,\\n\",\n       \"                                     7.4985e-02,  3.5433e-01,  2.1146e-01,  1.9029e-02, -2.7482e-02,\\n\",\n       \"                                     2.5046e-02, -1.1538e-01,  9.9619e-02,  2.5464e-01,  5.0537e-01,\\n\",\n       \"                                     4.9756e-01, -6.2948e-02,  1.4187e-01, -3.8272e-01,  1.1998e-01,\\n\",\n       \"                                     2.3396e-01,  8.7638e-01, -6.1409e-02, -1.7969e-01, -4.5910e-02,\\n\",\n       \"                                     2.2924e-01,  2.2706e-01,  3.2552e-01,  1.0975e-01,  6.2968e-02,\\n\",\n       \"                                    -6.4498e-02,  2.7169e-01,  2.5185e-01,  1.8035e-01,  3.2196e-01,\\n\",\n       \"                                     2.3540e-01, -2.2477e-01, -1.8710e-01,  1.4068e-01,  4.5910e-01,\\n\",\n       \"                                     1.6799e-01,  6.5608e-03,  1.2377e-01,  5.6258e-02, -7.8144e-01,\\n\",\n       \"                                     4.3098e-01,  5.6467e-01, -3.8760e-02, -1.3453e-01,  1.7881e-02,\\n\",\n       \"                                     4.1133e-01,  4.2046e-02,  5.0666e-01,  6.8481e-01,  4.9632e-01,\\n\",\n       \"                                     7.2266e-02,  8.6528e-02,  1.9726e-01,  2.0609e-01,  2.1501e-01,\\n\",\n       \"                                     1.3276e-01,  1.6760e-01,  2.7045e-01,  4.3999e-02,  3.6845e-01,\\n\",\n       \"                                     5.2264e-02,  7.5264e-01,  1.1433e-01,  8.4747e-02,  3.0166e-01,\\n\",\n       \"                                     1.9079e-01,  1.0732e-01,  1.6198e-01, -4.9254e-01,  3.7556e-01,\\n\",\n       \"                                     7.9555e-02,  4.4684e-02, -1.6131e-01, -8.8023e-03, -1.7224e-01,\\n\",\n       \"                                     8.8625e-02,  5.8451e-02, -6.2197e-03,  2.8570e-01,  3.5402e-01,\\n\",\n       \"                                     6.2331e-01,  1.1865e-01,  3.0338e-01,  1.5998e-01,  4.2997e-01,\\n\",\n       \"                                     1.6426e-01,  2.3096e-01,  3.6988e-01,  1.8134e-01,  2.1643e-01,\\n\",\n       \"                                     1.7414e-01,  1.7112e-01,  5.2216e-01,  2.0863e-01, -7.4228e-02,\\n\",\n       \"                                    -2.9927e-02,  3.0342e-01, -7.7274e-02,  9.7756e-02,  1.1052e-01,\\n\",\n       \"                                    -4.7219e-01,  6.3637e-01, -9.5980e-01,  9.8897e-02,  2.1375e-01,\\n\",\n       \"                                     4.4751e-02, -8.4467e-03,  1.0384e-01,  2.0667e-01,  1.5470e-01,\\n\",\n       \"                                     6.8581e-02,  1.7625e-01,  4.8077e-02, -1.1737e-01,  2.7715e-01,\\n\",\n       \"                                     3.4703e-01, -1.4836e-01,  6.2579e-02,  3.4763e-02,  1.2605e-01,\\n\",\n       \"                                    -6.6361e-02,  1.4257e-01,  5.6900e-01,  4.5195e-02,  3.9331e-01,\\n\",\n       \"                                    -5.3968e-03,  6.3631e-01,  1.8731e-02,  1.5331e-03,  3.2232e-01,\\n\",\n       \"                                     2.8391e-01,  6.9658e-02,  2.5956e-01,  7.0743e-04,  8.3131e-02,\\n\",\n       \"                                    -4.0698e-02, -2.9941e-02])),\\n\",\n       \"                           ('layer_2.normalizer.weight',\\n\",\n       \"                            tensor([ 0.5702,  0.2644,  0.0021,  0.3180,  0.0068,  0.7779,  0.9335,  0.8019,\\n\",\n       \"                                    -0.0026,  0.0130,  0.2658,  0.7768,  0.2027,  0.8133,  0.4755,  0.4897,\\n\",\n       \"                                     0.8120,  0.8660,  0.7208,  0.6162,  1.0882,  0.4964,  0.3053,  0.7868,\\n\",\n       \"                                     0.7445,  0.4685,  0.4096,  0.6145,  1.0769,  0.5526,  0.0037,  0.4450,\\n\",\n       \"                                     0.8094,  0.4504,  0.1680,  0.2447,  0.7307,  0.8844,  0.7824,  0.9964,\\n\",\n       \"                                     0.6331,  0.3162,  0.7100,  1.1262,  0.7011,  0.6610,  0.3499,  0.3103,\\n\",\n       \"                                     0.3882,  0.4211,  0.8804,  0.8797,  0.8348,  0.3552,  0.8234,  0.6807,\\n\",\n       \"                                     0.8677,  1.0028,  0.5138,  0.4255,  0.2642,  0.3518,  0.8169,  1.1435,\\n\",\n       \"                                     0.4310,  0.6880,  0.4420,  0.4483,  0.3779,  0.8295,  0.7879,  0.4734,\\n\",\n       \"                                     0.4358, -0.3511,  0.8456,  0.9694,  1.0054,  0.7382,  0.5879,  0.7284,\\n\",\n       \"                                     0.2063,  0.6878,  0.2600,  0.2843,  0.3376,  0.7433,  0.2563, -0.2748,\\n\",\n       \"                                     0.2734,  0.8698,  0.8010,  0.5559,  0.4545,  0.4025,  0.3367,  0.3711,\\n\",\n       \"                                     0.6905,  0.4669,  0.2259,  0.7472,  0.5634,  0.5947,  0.5681,  0.5274,\\n\",\n       \"                                     0.3540,  0.2592,  0.7315,  0.1985,  0.6367,  0.6228,  0.5678,  0.7469,\\n\",\n       \"                                     0.4683,  0.7877,  0.3997,  0.7646,  0.4645,  0.5035,  0.9133,  0.0689,\\n\",\n       \"                                     0.5252,  0.2042,  0.3749,  0.8870,  0.2443,  0.5081,  0.5015,  0.2709,\\n\",\n       \"                                     0.8070,  0.6796,  0.3015,  0.7249, -0.0299,  0.2952,  0.8090,  0.8051,\\n\",\n       \"                                     0.5114,  0.7190,  0.7958,  0.8325,  0.2930,  0.5036,  0.4367,  0.4449,\\n\",\n       \"                                     0.3949,  0.2757,  0.4136,  0.8340,  0.1668,  0.3975,  0.6852,  0.3907,\\n\",\n       \"                                     0.9086,  1.0399,  0.4983,  0.4873,  0.9199,  0.7441,  0.3017,  0.9651,\\n\",\n       \"                                     0.7199,  1.2637])),\\n\",\n       \"                           ('layer_2.normalizer.bias',\\n\",\n       \"                            tensor([-0.2877, -0.1392, -0.0760, -0.1539,  0.1394, -0.3909, -0.2643,  0.0480,\\n\",\n       \"                                    -0.0762, -0.0654, -0.1486, -0.4975,  0.0746, -0.2274, -0.5470,  0.1071,\\n\",\n       \"                                    -0.7426, -0.4433, -0.0887, -0.1903, -0.6628, -0.0657, -0.1192, -0.3334,\\n\",\n       \"                                     0.3805, -0.3382,  0.0676, -0.1222, -0.1984, -0.2463, -0.0655, -0.3659,\\n\",\n       \"                                    -0.2818, -0.2096,  0.1345,  0.2461, -0.1120, -0.1843, -0.4706, -0.0271,\\n\",\n       \"                                    -0.1814,  0.2776, -0.1216, -0.6338, -0.4935, -0.2531, -0.2297, -0.1417,\\n\",\n       \"                                    -0.0701, -0.2186, -0.5407, -0.4192, -0.1523, -0.1759,  0.0016, -0.0079,\\n\",\n       \"                                    -0.4961, -0.0490, -0.2012, -0.3597, -0.3253, -0.0746, -0.1436, -0.1339,\\n\",\n       \"                                    -0.4577, -0.0792,  0.1882, -0.2153,  0.0198, -0.4788, -0.0718, -0.7235,\\n\",\n       \"                                    -0.2115, -0.5022,  0.0753,  0.0306, -0.4394, -0.1115, -0.0326, -0.1410,\\n\",\n       \"                                    -0.2049, -0.2567,  0.3239, -0.2708,  0.1325,  0.3172,  0.2874, -0.2593,\\n\",\n       \"                                     0.0281, -0.3286,  0.0809, -0.1017, -0.1189, -0.1250, -0.0465, -0.2186,\\n\",\n       \"                                    -0.2037, -0.5524, -0.1744, -0.3866, -0.2166,  0.1573, -0.3897,  0.0766,\\n\",\n       \"                                    -0.2397,  0.2393, -0.3184, -0.0487, -0.3327, -0.1560, -0.4015,  0.0770,\\n\",\n       \"                                    -0.0272,  0.1276, -0.1546, -0.5013,  0.0713, -0.0201, -0.0893, -0.1252,\\n\",\n       \"                                    -0.2020,  0.3025, -0.2530,  0.2395, -0.3860, -0.4408,  0.0632, -0.5001,\\n\",\n       \"                                    -0.4768, -0.0856,  0.1180, -0.4356, -0.0909, -0.0226, -0.2583, -0.1047,\\n\",\n       \"                                    -0.2219,  0.0344, -0.3541,  0.2453,  0.2751, -0.0668, -0.2798,  0.1193,\\n\",\n       \"                                     0.2693, -0.2330, -0.2963,  0.0207,  0.0744,  0.3772, -0.0594,  0.2716,\\n\",\n       \"                                    -0.5286, -0.0988,  0.0071,  0.0785, -0.4082, -0.0996, -0.2286, -0.1072,\\n\",\n       \"                                    -0.0199, -0.0759])),\\n\",\n       \"                           ('layer_2.normalizer.running_mean',\\n\",\n       \"                            tensor([-0.4771,  0.3641,  0.8236, -0.5117, -0.0686, -0.1060, -0.2271,  1.1366,\\n\",\n       \"                                    -0.2673, -0.6526, -0.0598, -0.3061, -0.8754, -0.5231, -0.1757,  0.4500,\\n\",\n       \"                                    -0.8126, -0.2425, -0.5052, -0.7121, -0.4026, -0.9407, -0.2459, -0.9544,\\n\",\n       \"                                     0.4757, -0.5780, -0.4919,  0.7358, -0.7519, -1.2301, -0.5611, -0.1652,\\n\",\n       \"                                    -0.2985, -1.5551, -0.4821,  0.0284,  0.7578, -0.6171,  1.1162, -0.2456,\\n\",\n       \"                                     0.0706,  0.7641, -0.7250, -0.0534,  0.3452, -1.3787, -0.1682, -0.4565,\\n\",\n       \"                                     0.0713, -0.7465, -0.1761, -0.3235, -0.1148, -1.7422, -0.4193, -0.4965,\\n\",\n       \"                                     1.6195, -0.7968, -0.8410, -0.0312, -0.3054, -1.1875, -0.0566, -0.3492,\\n\",\n       \"                                     0.0022, -0.2289,  0.0654, -0.3188,  1.0440, -0.6859,  0.0535, -0.2057,\\n\",\n       \"                                    -0.9382, -1.3899,  0.4321,  0.1345, -0.8927,  0.0757, -0.8157, -0.7032,\\n\",\n       \"                                    -0.0305, -0.7336,  0.8059, -0.1560,  0.6057,  0.1573,  1.3014, -0.1614,\\n\",\n       \"                                     0.6065, -0.0084, -1.0559, -0.9398, -1.2521,  0.4449, -0.5810, -1.4539,\\n\",\n       \"                                    -0.2939,  0.2501, -0.4125,  0.1147, -0.6748,  0.5822, -1.2044, -0.1167,\\n\",\n       \"                                     0.0862,  0.5174, -0.8685, -1.8570,  0.0200, -0.6124, -0.3150,  0.5020,\\n\",\n       \"                                    -0.7448, -0.5465, -1.0633, -0.2995,  0.4695, -0.5782, -0.0652, -0.5671,\\n\",\n       \"                                    -1.0913, -0.6757,  0.6314, -0.3749, -0.8141, -0.3002,  0.3342, -0.5968,\\n\",\n       \"                                    -0.5119,  0.0035,  0.1476,  0.0465,  0.4401,  0.0067,  0.2266, -0.7001,\\n\",\n       \"                                    -0.3087, -0.8820, -0.2069,  0.8888, -0.2508,  1.0863, -0.4786,  0.1945,\\n\",\n       \"                                     0.5957, -0.1170, -0.3074,  0.1786, -0.8405,  0.0903,  0.1077,  0.4824,\\n\",\n       \"                                    -0.3188,  0.6018,  0.2859, -1.1954, -0.3282, -0.7685, -0.7977, -0.6385,\\n\",\n       \"                                     0.9811,  0.7143])),\\n\",\n       \"                           ('layer_2.normalizer.running_var',\\n\",\n       \"                            tensor([1.2081, 0.7104, 0.2791, 2.3922, 1.3909, 2.2632, 2.7923, 3.4170, 0.2371,\\n\",\n       \"                                    0.8223, 1.3578, 1.3718, 3.6416, 1.1920, 1.7282, 2.5161, 1.9402, 0.8729,\\n\",\n       \"                                    1.1787, 1.5293, 0.9767, 3.6726, 1.8250, 1.4192, 3.7494, 1.0485, 2.5048,\\n\",\n       \"                                    2.8385, 2.6879, 1.5259, 0.3320, 5.0883, 2.3942, 2.9072, 2.1876, 4.2835,\\n\",\n       \"                                    2.2496, 1.4994, 1.1825, 3.0025, 1.3385, 4.1513, 1.3618, 1.3812, 3.3829,\\n\",\n       \"                                    2.7717, 2.4212, 2.5637, 0.7795, 2.8931, 1.4690, 1.9977, 3.8444, 2.4258,\\n\",\n       \"                                    0.9577, 3.2737, 2.3147, 2.9155, 1.6753, 1.4580, 1.7667, 2.2222, 1.0000,\\n\",\n       \"                                    3.4903, 4.8764, 1.9582, 2.8803, 1.6848, 3.7632, 2.2867, 2.3507, 2.0570,\\n\",\n       \"                                    1.8109, 2.8613, 3.5178, 2.9047, 1.7047, 0.8481, 2.2359, 1.6086, 1.2468,\\n\",\n       \"                                    1.9544, 4.4804, 1.5151, 2.4366, 5.1584, 4.9039, 7.4413, 3.6987, 1.0244,\\n\",\n       \"                                    2.5796, 1.8977, 1.5950, 2.9663, 2.5948, 1.5380, 4.0055, 1.2963, 1.2724,\\n\",\n       \"                                    1.0664, 1.9278, 1.7581, 1.5861, 3.4465, 1.5621, 5.3650, 1.7151, 5.2662,\\n\",\n       \"                                    1.2776, 1.0102, 0.9393, 3.4590, 2.4199, 1.5162, 2.2081, 1.1188, 3.0619,\\n\",\n       \"                                    2.5459, 1.2963, 0.4084, 2.9916, 1.2197, 1.8776, 2.3511, 2.1200, 1.6047,\\n\",\n       \"                                    2.1336, 2.0964, 1.9538, 3.3240, 2.2276, 1.0014, 0.3187, 2.3750, 2.5523,\\n\",\n       \"                                    1.7299, 1.6644, 0.9426, 1.8765, 4.0248, 2.9807, 2.4890, 1.6497, 4.3925,\\n\",\n       \"                                    3.5190, 3.1066, 2.3513, 1.8139, 2.6495, 4.8435, 3.8340, 3.7585, 1.8870,\\n\",\n       \"                                    2.6590, 2.8758, 2.4845, 1.1878, 1.7869, 1.4710, 2.2284, 2.6282, 3.5244])),\\n\",\n       \"                           ('layer_2.normalizer.num_batches_tracked',\\n\",\n       \"                            tensor(670)),\\n\",\n       \"                           ('layer_3.linear.weight',\\n\",\n       \"                            tensor([[ 0.1380, -0.1854,  0.0619,  ..., -0.2357,  0.0291, -0.0855],\\n\",\n       \"                                    [ 0.1408,  0.0109,  0.0273,  ..., -0.1300, -0.2806,  0.0283],\\n\",\n       \"                                    [-0.0817,  0.0103, -0.1799,  ...,  0.0643, -0.0872, -0.2488],\\n\",\n       \"                                    ...,\\n\",\n       \"                                    [-0.1365,  0.2386,  0.0441,  ...,  0.1613,  0.0506,  0.0980],\\n\",\n       \"                                    [ 0.0804,  0.0271, -0.0292,  ...,  0.1756, -0.0669,  0.1731],\\n\",\n       \"                                    [ 0.0381,  0.2557, -0.1221,  ...,  0.2586,  0.0182, -0.0256]])),\\n\",\n       \"                           ('layer_3.linear.bias',\\n\",\n       \"                            tensor([ 1.7908e-02, -1.6474e-02, -1.1066e-01,  2.7437e-01,  7.9325e-01,\\n\",\n       \"                                     7.8987e-02,  3.3952e-01, -8.7965e-02,  1.5753e-01, -1.2900e-01,\\n\",\n       \"                                     7.6526e-02,  7.7629e-03,  5.0898e-01, -3.8382e-01, -6.2505e-02,\\n\",\n       \"                                     7.2312e-01,  4.5212e-02,  9.1312e-01,  4.5915e-02,  1.3952e-02,\\n\",\n       \"                                     2.2207e-01, -5.3636e-04,  1.4154e-01,  1.2470e-01,  1.3919e-01,\\n\",\n       \"                                     1.1014e-01,  1.1680e-01, -3.1510e-02,  4.0542e-02, -1.7219e-04,\\n\",\n       \"                                    -1.0441e-01,  5.2226e-01, -5.1104e-02,  3.9572e-01, -2.4648e-01,\\n\",\n       \"                                    -3.9327e-01, -1.4421e-01, -6.7385e-02,  2.2774e-02, -1.5080e-01,\\n\",\n       \"                                    -5.9285e-03,  1.3464e-01,  1.1147e-01, -2.1358e-01, -3.9889e-01,\\n\",\n       \"                                     1.2666e-01])),\\n\",\n       \"                           ('layer_3.normalizer.weight',\\n\",\n       \"                            tensor([ 0.4035,  0.9273,  0.3436,  0.8313, -0.5483,  0.5186,  0.3613,  0.3362,\\n\",\n       \"                                     0.7600,  0.4670,  1.1825,  0.7006,  0.4275,  1.0126,  0.9773,  0.3357,\\n\",\n       \"                                     0.2955,  0.3329,  0.3705, -0.0120,  0.8153,  0.9983,  0.7633,  0.8837,\\n\",\n       \"                                     0.3240,  0.8691,  0.9471,  0.8034,  0.6000,  0.8582,  0.3787,  0.6470,\\n\",\n       \"                                     1.0252,  0.7739,  0.3396,  0.8057,  0.8804,  0.7036,  0.8939,  0.5345,\\n\",\n       \"                                     0.9509,  0.7852,  0.8444,  0.6482,  0.7647,  0.9864])),\\n\",\n       \"                           ('layer_3.normalizer.bias',\\n\",\n       \"                            tensor([ 0.3733,  0.2051, -0.0269,  0.2724, -0.4801, -0.1726,  0.4889,  0.4670,\\n\",\n       \"                                     0.0054,  0.3607, -0.0175,  0.0667,  0.3025, -0.1931,  0.0393,  0.4796,\\n\",\n       \"                                    -0.4264,  0.4658,  0.4557, -0.0588,  0.1771,  0.1360, -0.1883,  0.3348,\\n\",\n       \"                                    -0.0160,  0.1065,  0.2562, -0.0518,  0.2925,  0.1273,  0.6136,  0.2823,\\n\",\n       \"                                    -0.1507,  0.1460,  0.0915, -0.2639,  0.0656,  0.1196, -0.1569,  0.1028,\\n\",\n       \"                                     0.0275,  0.4489,  0.1869, -0.4018, -0.2103, -0.0286])),\\n\",\n       \"                           ('layer_3.normalizer.running_mean',\\n\",\n       \"                            tensor([-0.9715, -2.2032, -1.8011,  0.9685,  0.6200, -0.9597,  0.7768, -2.1247,\\n\",\n       \"                                    -2.0955, -2.6104,  1.6368, -1.4368,  1.0332,  1.4593,  0.8677,  1.6211,\\n\",\n       \"                                    -1.0680,  1.0735, -0.7232,  1.2941, -0.8071, -1.6285, -2.1765, -1.8546,\\n\",\n       \"                                    -1.0937,  0.5600,  0.9602,  0.9767, -0.7245, -1.1330, -2.3668,  0.4982,\\n\",\n       \"                                     0.3226, -1.4879, -3.2258, -0.0994, -2.7357, -1.0780, -2.0709, -1.0271,\\n\",\n       \"                                    -1.8341,  1.0092, -0.7226, -0.3674,  3.3634, -0.3263])),\\n\",\n       \"                           ('layer_3.normalizer.running_var',\\n\",\n       \"                            tensor([ 4.4649,  9.8838,  5.2923,  4.5300,  5.1298,  1.6735,  5.8431,  8.8731,\\n\",\n       \"                                     4.8244,  8.9389,  6.5502,  4.1085,  7.3151,  6.8593,  4.8760,  9.5597,\\n\",\n       \"                                     1.4886,  6.5716,  3.2722,  0.5959,  4.1359,  7.5561,  4.8947,  5.4064,\\n\",\n       \"                                     2.4573,  3.7298,  4.4916,  4.9595,  2.8120,  7.7168, 10.7011,  4.4031,\\n\",\n       \"                                     4.6533,  5.6067,  8.5437,  3.1499,  7.7018,  4.7582,  4.0134,  2.9158,\\n\",\n       \"                                     5.3908,  7.7204,  3.1456,  2.2102, 10.8318,  2.5861])),\\n\",\n       \"                           ('layer_3.normalizer.num_batches_tracked',\\n\",\n       \"                            tensor(670)),\\n\",\n       \"                           ('layer_4.linear.weight',\\n\",\n       \"                            tensor([[ 0.0698, -0.0195, -0.0756,  ..., -0.0462,  0.0105, -0.0389],\\n\",\n       \"                                    [ 0.1114,  0.1341,  0.3744,  ..., -0.1303, -0.5447,  0.0424],\\n\",\n       \"                                    [ 0.4859,  0.2065,  0.2659,  ..., -0.2024, -0.3696, -0.2466],\\n\",\n       \"                                    ...,\\n\",\n       \"                                    [ 0.5584, -0.0504,  0.2195,  ..., -0.2966,  0.0918, -0.2569],\\n\",\n       \"                                    [-0.0763,  0.0830,  0.2275,  ...,  0.0154, -0.0329, -0.0522],\\n\",\n       \"                                    [-0.1180,  0.2637,  0.1172,  ...,  0.1356, -0.6853,  0.2353]])),\\n\",\n       \"                           ('layer_4.linear.bias',\\n\",\n       \"                            tensor([-0.0691, -0.1060, -0.0187,  0.3468,  0.1665,  0.0228, -0.0955, -0.0045,\\n\",\n       \"                                    -0.1590,  0.2351,  0.1438,  0.3307, -0.0113, -0.0621, -0.1006, -0.0504,\\n\",\n       \"                                     0.1788,  0.2348, -0.0194, -0.1862,  0.3357,  0.0535,  0.0694,  0.0870,\\n\",\n       \"                                    -0.1025,  0.2098,  0.0873,  0.1724,  0.0155, -0.0475,  0.0931,  0.3493])),\\n\",\n       \"                           ('layer_4.normalizer.weight',\\n\",\n       \"                            tensor([ 0.2297,  0.2990,  0.2737,  0.8078,  0.5716,  0.4337,  0.6599,  0.4357,\\n\",\n       \"                                     0.3786,  0.7697,  0.3827,  1.0374,  0.9383,  0.4150,  0.5763,  0.0082,\\n\",\n       \"                                     0.5816,  0.2989,  0.7998,  1.0263,  0.8123,  0.3771,  0.6268,  0.8554,\\n\",\n       \"                                     0.5588, -0.6344,  0.5484,  0.7461,  0.9628,  0.8320,  0.6235,  0.9862])),\\n\",\n       \"                           ('layer_4.normalizer.bias',\\n\",\n       \"                            tensor([-0.1278,  0.4389,  0.4260,  0.3198, -0.1430,  0.3581, -0.2091, -0.0930,\\n\",\n       \"                                     0.3896,  0.3542, -0.1799,  0.2433,  0.2380, -0.1205,  0.3009, -0.0899,\\n\",\n       \"                                     0.2727,  0.4550, -0.1858,  0.1964,  0.4114, -0.0596,  0.0278, -0.2187,\\n\",\n       \"                                     0.0882, -0.0525, -0.0552,  0.2251,  0.2028,  0.1410, -0.1418,  0.2488])),\\n\",\n       \"                           ('layer_4.normalizer.running_mean',\\n\",\n       \"                            tensor([-0.2209, -0.0189, -0.1345, -0.8261, -0.1632, -0.5029,  0.1678,  0.3956,\\n\",\n       \"                                    -0.2796, -0.5636, -0.1228, -0.5516, -0.8519,  0.3655, -0.5660, -0.3087,\\n\",\n       \"                                    -0.7080, -0.0173, -0.1170, -0.6635, -0.8329,  0.0423, -0.4747, -0.1199,\\n\",\n       \"                                    -0.5585,  0.8095,  0.2742, -0.8614, -0.7616, -0.3526,  0.0804, -0.6352])),\\n\",\n       \"                           ('layer_4.normalizer.running_var',\\n\",\n       \"                            tensor([ 0.1660,  9.9155,  9.3877, 10.0118,  1.8771,  8.6701,  0.9420,  1.2411,\\n\",\n       \"                                     7.6982,  7.8437,  0.5575,  8.9085, 10.7996,  1.3539,  6.6764,  0.0753,\\n\",\n       \"                                     6.6262,  9.5189,  0.6057,  5.4100,  8.8232,  1.7903,  4.0475,  1.0141,\\n\",\n       \"                                     3.2860,  5.7909,  1.9748,  6.6539,  7.9738,  4.0276,  0.9936,  6.8559])),\\n\",\n       \"                           ('layer_4.normalizer.num_batches_tracked',\\n\",\n       \"                            tensor(670)),\\n\",\n       \"                           ('output.weight',\\n\",\n       \"                            tensor([[ 0.0907,  0.3841,  0.4231,  0.2701,  0.1529,  0.3734,  0.1848,  0.1908,\\n\",\n       \"                                      0.3445,  0.2799,  0.2094,  0.2791,  0.2999,  0.2314,  0.3558,  0.0392,\\n\",\n       \"                                      0.3215,  0.3956,  0.1413,  0.2460,  0.2496,  0.1880,  0.2432,  0.1266,\\n\",\n       \"                                      0.2394, -0.7282,  0.2006,  0.2259,  0.2687,  0.2108,  0.1736,  0.2261]])),\\n\",\n       \"                           ('output.bias', tensor([0.1369]))]))])\"\n      ]\n     },\n     \"execution_count\": 23,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"checker.checkpoints['mse_3']\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### resue model using trainer\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"`xenonpy.model.training.Trainer` can load model and checkpoints from checker or from model directory directly.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 24,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.model.training import Trainer\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 25,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"Trainer(clip_grad=None, cuda=None, epochs=200, loss_func=None,\\n\",\n       \"        lr_scheduler=None,\\n\",\n       \"        model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=180, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(180, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(...\\n\",\n       \"    (normalizer): BatchNorm1d(46, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_4): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=46, out_features=32, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(32, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=32, out_features=1, bias=True)\\n\",\n       \"),\\n\",\n       \"        non_blocking=False, optimizer=None)\"\n      ]\n     },\n     \"execution_count\": 25,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"trainer = Trainer.load(from_=checker)\\n\",\n    \"trainer\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"The following codes show how to reuse model for prediction.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 26,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>band_gap</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>density</th>\\n\",\n       \"      <th>e_above_hull</th>\\n\",\n       \"      <th>efermi</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>final_energy_per_atom</th>\\n\",\n       \"      <th>formation_energy_per_atom</th>\\n\",\n       \"      <th>pretty_formula</th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"      <th>volume</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1008807</td>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"      <td>{'Rb': 1.0, 'Cu': 1.0, 'O': 1.0}</td>\\n\",\n       \"      <td>4.784634</td>\\n\",\n       \"      <td>0.996372</td>\\n\",\n       \"      <td>1.100617</td>\\n\",\n       \"      <td>[Rb, Cu, O]</td>\\n\",\n       \"      <td>-3.302762</td>\\n\",\n       \"      <td>-0.186408</td>\\n\",\n       \"      <td>RbCuO</td>\\n\",\n       \"      <td>[[-3.05935361 -3.05935361 -3.05935361] Rb, [0....</td>\\n\",\n       \"      <td>57.268924</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1009640</td>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"      <td>{'Pr': 1.0, 'N': 1.0}</td>\\n\",\n       \"      <td>8.145777</td>\\n\",\n       \"      <td>0.759393</td>\\n\",\n       \"      <td>5.213442</td>\\n\",\n       \"      <td>[Pr, N]</td>\\n\",\n       \"      <td>-7.082624</td>\\n\",\n       \"      <td>-0.714336</td>\\n\",\n       \"      <td>PrN</td>\\n\",\n       \"      <td>[[0. 0. 0.] Pr, [1.57925232 1.57925232 1.58276...</td>\\n\",\n       \"      <td>31.579717</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1016825</td>\\n\",\n       \"      <td>0.7745</td>\\n\",\n       \"      <td>{'Hf': 1.0, 'Mg': 1.0, 'O': 3.0}</td>\\n\",\n       \"      <td>6.165888</td>\\n\",\n       \"      <td>0.589550</td>\\n\",\n       \"      <td>2.424570</td>\\n\",\n       \"      <td>[Hf, Mg, O]</td>\\n\",\n       \"      <td>-7.911723</td>\\n\",\n       \"      <td>-3.060060</td>\\n\",\n       \"      <td>HfMgO3</td>\\n\",\n       \"      <td>[[2.03622802 2.03622802 2.03622802] Hf, [0. 0....</td>\\n\",\n       \"      <td>67.541269</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            band_gap                       composition   density  \\\\\\n\",\n       \"mp-1008807    0.0000  {'Rb': 1.0, 'Cu': 1.0, 'O': 1.0}  4.784634   \\n\",\n       \"mp-1009640    0.0000             {'Pr': 1.0, 'N': 1.0}  8.145777   \\n\",\n       \"mp-1016825    0.7745  {'Hf': 1.0, 'Mg': 1.0, 'O': 3.0}  6.165888   \\n\",\n       \"\\n\",\n       \"            e_above_hull    efermi     elements  final_energy_per_atom  \\\\\\n\",\n       \"mp-1008807      0.996372  1.100617  [Rb, Cu, O]              -3.302762   \\n\",\n       \"mp-1009640      0.759393  5.213442      [Pr, N]              -7.082624   \\n\",\n       \"mp-1016825      0.589550  2.424570  [Hf, Mg, O]              -7.911723   \\n\",\n       \"\\n\",\n       \"            formation_energy_per_atom pretty_formula  \\\\\\n\",\n       \"mp-1008807                  -0.186408          RbCuO   \\n\",\n       \"mp-1009640                  -0.714336            PrN   \\n\",\n       \"mp-1016825                  -3.060060         HfMgO3   \\n\",\n       \"\\n\",\n       \"                                                    structure     volume  \\n\",\n       \"mp-1008807  [[-3.05935361 -3.05935361 -3.05935361] Rb, [0....  57.268924  \\n\",\n       \"mp-1009640  [[0. 0. 0.] Pr, [1.57925232 1.57925232 1.58276...  31.579717  \\n\",\n       \"mp-1016825  [[2.03622802 2.03622802 2.03622802] Hf, [0. 0....  67.541269  \"\n      ]\n     },\n     \"execution_count\": 26,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# if you have not had the samples data\\n\",\n    \"# preset.build('mp_samples', api_key=<your materials project api key>)\\n\",\n    \"from xenonpy.datatools import preset\\n\",\n    \"\\n\",\n    \"data = preset.mp_samples\\n\",\n    \"data.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 27,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1008807</td>\\n\",\n       \"      <td>24.666667</td>\\n\",\n       \"      <td>174.067140</td>\\n\",\n       \"      <td>209.333333</td>\\n\",\n       \"      <td>25.666667</td>\\n\",\n       \"      <td>55.004267</td>\\n\",\n       \"      <td>1297.063333</td>\\n\",\n       \"      <td>72.868680</td>\\n\",\n       \"      <td>1646.90</td>\\n\",\n       \"      <td>139.333333</td>\\n\",\n       \"      <td>128.333333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.360</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>349.5</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1009640</td>\\n\",\n       \"      <td>33.000000</td>\\n\",\n       \"      <td>137.000000</td>\\n\",\n       \"      <td>232.500000</td>\\n\",\n       \"      <td>19.050000</td>\\n\",\n       \"      <td>77.457330</td>\\n\",\n       \"      <td>1931.200000</td>\\n\",\n       \"      <td>43.182441</td>\\n\",\n       \"      <td>1892.85</td>\\n\",\n       \"      <td>137.000000</td>\\n\",\n       \"      <td>123.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.192</td>\\n\",\n       \"      <td>0.02583</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>166.0</td>\\n\",\n       \"      <td>193.0</td>\\n\",\n       \"      <td>360.6</td>\\n\",\n       \"      <td>333.6</td>\\n\",\n       \"      <td>1.100</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1016825</td>\\n\",\n       \"      <td>21.600000</td>\\n\",\n       \"      <td>153.120852</td>\\n\",\n       \"      <td>203.400000</td>\\n\",\n       \"      <td>13.920000</td>\\n\",\n       \"      <td>50.158400</td>\\n\",\n       \"      <td>1420.714000</td>\\n\",\n       \"      <td>76.663625</td>\\n\",\n       \"      <td>343.82</td>\\n\",\n       \"      <td>102.800000</td>\\n\",\n       \"      <td>96.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.146</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>302.1</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>3 rows × 290 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-1008807          24.666667         174.067140              209.333333   \\n\",\n       \"mp-1009640          33.000000         137.000000              232.500000   \\n\",\n       \"mp-1016825          21.600000         153.120852              203.400000   \\n\",\n       \"\\n\",\n       \"            ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-1008807          25.666667          55.004267        1297.063333   \\n\",\n       \"mp-1009640          19.050000          77.457330        1931.200000   \\n\",\n       \"mp-1016825          13.920000          50.158400        1420.714000   \\n\",\n       \"\\n\",\n       \"            ave:bulk_modulus  ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-1008807         72.868680    1646.90                   139.333333   \\n\",\n       \"mp-1009640         43.182441    1892.85                   137.000000   \\n\",\n       \"mp-1016825         76.663625     343.82                   102.800000   \\n\",\n       \"\\n\",\n       \"            ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"mp-1008807                  128.333333  ...                1.0         2.0   \\n\",\n       \"mp-1009640                  123.500000  ...                2.0         2.0   \\n\",\n       \"mp-1016825                   96.000000  ...                2.0         2.0   \\n\",\n       \"\\n\",\n       \"            min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"mp-1008807              0.360                   0.02658           152.0   \\n\",\n       \"mp-1009640              0.192                   0.02583           155.0   \\n\",\n       \"mp-1016825              0.146                   0.02658           152.0   \\n\",\n       \"\\n\",\n       \"            min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"mp-1008807                   150.0               182.0               349.5   \\n\",\n       \"mp-1009640                   166.0               193.0               360.6   \\n\",\n       \"mp-1016825                   150.0               182.0               302.1   \\n\",\n       \"\\n\",\n       \"            min:sound_velocity  min:Polarizability  \\n\",\n       \"mp-1008807               317.5               0.802  \\n\",\n       \"mp-1009640               333.6               1.100  \\n\",\n       \"mp-1016825               317.5               0.802  \\n\",\n       \"\\n\",\n       \"[3 rows x 290 columns]\"\n      ]\n     },\n     \"execution_count\": 27,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>efermi</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1008807</td>\\n\",\n       \"      <td>1.100617</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1009640</td>\\n\",\n       \"      <td>5.213442</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1016825</td>\\n\",\n       \"      <td>2.424570</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"              efermi\\n\",\n       \"mp-1008807  1.100617\\n\",\n       \"mp-1009640  5.213442\\n\",\n       \"mp-1016825  2.424570\"\n      ]\n     },\n     \"execution_count\": 27,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import Compositions\\n\",\n    \"\\n\",\n    \"prop = data['efermi'].dropna().to_frame()  # reshape to 2-D\\n\",\n    \"desc = Compositions(featurizers='classic').transform(data.loc[prop.index]['composition'])\\n\",\n    \"\\n\",\n    \"desc.head(3)\\n\",\n    \"prop.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 28,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Missing directory and/or file name information!\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x720 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"y_pred = trainer.predict(x_in=torch.tensor(desc.values, dtype=torch.float)).detach().numpy().flatten()\\n\",\n    \"y_true = prop.values.flatten()\\n\",\n    \"\\n\",\n    \"draw(y_true, y_pred, prop_name='Efermi ($eV$)')\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.4\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 2\n}\n"
  },
  {
    "path": "samples/predict_hypermaterials/OTHERS_data.csv",
    "content": ",composition,elements,label,for_test\nmp-1077980,\"{'Sr': 1.0, 'Ag': 4.0, 'Sb': 2.0}\",\"('Ag', 'Sb', 'Sr')\",OTHERS,False\nmp-30079,\"{'Li': 1.0, 'Mg': 2.0, 'Ge': 1.0}\",\"('Ge', 'Li', 'Mg')\",OTHERS,False\nmvc-2967,\"{'Ba': 2.0, 'Tl': 1.0, 'Fe': 2.0, 'O': 7.0}\",\"('Ba', 'Fe', 'O', 'Tl')\",OTHERS,False\nmp-1202279,\"{'K': 18.0, 'Ho': 18.0, 'F': 72.0}\",\"('F', 'Ho', 'K')\",OTHERS,False\nmp-34421,\"{'Bi': 3.0, 'Cd': 1.0, 'O': 7.0}\",\"('Bi', 'Cd', 'O')\",OTHERS,False\nmp-976583,\"{'K': 6.0, 'Co': 2.0}\",\"('Co', 'K')\",OTHERS,False\nmp-626550,\"{'Ti': 6.0, 'H': 4.0, 'O': 14.0}\",\"('H', 'O', 'Ti')\",OTHERS,False\nmp-555012,\"{'La': 24.0, 'S': 16.0, 'N': 12.0, 'Cl': 4.0}\",\"('Cl', 'La', 'N', 'S')\",OTHERS,False\nmp-755743,\"{'Li': 4.0, 'Ti': 2.0, 'Cr': 2.0, 'O': 8.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-766253,\"{'La': 2.0, 'Th': 11.0, 'O': 26.0}\",\"('La', 'O', 'Th')\",OTHERS,False\nmp-753335,\"{'Li': 4.0, 'V': 4.0, 'F': 14.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1176451,\"{'Mn': 5.0, 'V': 1.0, 'O': 12.0}\",\"('Mn', 'O', 'V')\",OTHERS,False\nmp-21893,\"{'Mn': 4.0, 'Te': 8.0}\",\"('Mn', 'Te')\",OTHERS,False\nmp-568695,\"{'Ca': 3.0, 'Cd': 3.0, 'Sn': 3.0}\",\"('Ca', 'Cd', 'Sn')\",OTHERS,False\nmp-753169,\"{'Mn': 4.0, 'F': 10.0}\",\"('F', 'Mn')\",OTHERS,False\nmp-1040366,\"{'K': 1.0, 'Li': 1.0, 'Mg': 30.0, 'O': 31.0}\",\"('K', 'Li', 'Mg', 'O')\",OTHERS,False\nmp-1208310,\"{'Tb': 4.0, 'Si': 4.0, 'Pd': 8.0}\",\"('Pd', 'Si', 'Tb')\",OTHERS,False\nmp-1215696,\"{'Zn': 2.0, 'In': 1.0, 'Cu': 1.0, 'S': 4.0}\",\"('Cu', 'In', 'S', 'Zn')\",OTHERS,False\nmp-1187611,\"{'Tm': 1.0, 'Lu': 1.0, 'Ag': 2.0}\",\"('Ag', 'Lu', 'Tm')\",OTHERS,False\nmp-1194239,\"{'Pu': 4.0, 'Si': 2.0, 'O': 20.0}\",\"('O', 'Pu', 'Si')\",OTHERS,False\nmp-1097220,\"{'Sc': 2.0, 'Zn': 1.0, 'Hg': 1.0}\",\"('Hg', 'Sc', 'Zn')\",OTHERS,False\nmp-1096426,\"{'Cs': 1.0, 'Na': 2.0, 'Bi': 1.0}\",\"('Bi', 'Cs', 'Na')\",OTHERS,False\nmp-19725,\"{'Fe': 6.0, 'Ge': 6.0, 'Hf': 1.0}\",\"('Fe', 'Ge', 'Hf')\",OTHERS,False\nmvc-9863,\"{'La': 2.0, 'Ti': 2.0, 'Zn': 2.0, 'Cr': 2.0, 'O': 12.0}\",\"('Cr', 'La', 'O', 'Ti', 'Zn')\",OTHERS,False\nmp-1112161,\"{'Cs': 2.0, 'Rb': 1.0, 'Bi': 1.0, 'I': 6.0}\",\"('Bi', 'Cs', 'I', 'Rb')\",OTHERS,False\nmp-1245490,\"{'Ba': 8.0, 'V': 2.0, 'N': 8.0}\",\"('Ba', 'N', 'V')\",OTHERS,False\nmp-559407,\"{'Na': 3.0, 'Gd': 3.0, 'H': 6.0, 'S': 6.0, 'O': 27.0}\",\"('Gd', 'H', 'Na', 'O', 'S')\",OTHERS,False\nmp-1207970,\"{'Tm': 10.0, 'Bi': 2.0, 'Pt': 4.0}\",\"('Bi', 'Pt', 'Tm')\",OTHERS,False\nmp-1246472,\"{'Mg': 2.0, 'In': 1.0, 'Mo': 3.0, 'S': 8.0}\",\"('In', 'Mg', 'Mo', 'S')\",OTHERS,False\nmp-571474,\"{'Sm': 8.0, 'Sn': 6.0}\",\"('Sm', 'Sn')\",OTHERS,False\nmp-1016058,\"{'Cr': 4.0, 'N': 8.0}\",\"('Cr', 'N')\",OTHERS,False\nmp-772720,\"{'Cr': 12.0, 'Co': 8.0, 'O': 48.0}\",\"('Co', 'Cr', 'O')\",OTHERS,False\nmp-1039782,\"{'Na': 1.0, 'Mg': 30.0, 'W': 1.0, 'O': 32.0}\",\"('Mg', 'Na', 'O', 'W')\",OTHERS,False\nmp-1198768,\"{'Ca': 4.0, 'Si': 4.0, 'B': 4.0, 'O': 20.0}\",\"('B', 'Ca', 'O', 'Si')\",OTHERS,False\nmp-675857,\"{'Cd': 4.0, 'Sn': 2.0, 'O': 8.0}\",\"('Cd', 'O', 'Sn')\",OTHERS,False\nmvc-16729,\"{'Y': 2.0, 'Mn': 4.0, 'S': 8.0}\",\"('Mn', 'S', 'Y')\",OTHERS,False\nmp-5808,\"{'Rb': 1.0, 'Te': 2.0, 'Nd': 1.0}\",\"('Nd', 'Rb', 'Te')\",OTHERS,False\nmp-677726,\"{'Al': 12.0, 'Si': 12.0, 'Ag': 16.0, 'S': 5.0, 'O': 48.0}\",\"('Ag', 'Al', 'O', 'S', 'Si')\",OTHERS,False\nmp-1093949,\"{'Ba': 2.0, 'Tl': 1.0, 'Ag': 1.0}\",\"('Ag', 'Ba', 'Tl')\",OTHERS,False\nmp-21604,\"{'S': 24.0, 'In': 4.0, 'Sm': 12.0}\",\"('In', 'S', 'Sm')\",OTHERS,False\nmp-1225810,\"{'Cu': 2.0, 'Si': 1.0, 'Te': 3.0}\",\"('Cu', 'Si', 'Te')\",OTHERS,False\nmp-540651,\"{'Ba': 8.0, 'Mn': 8.0, 'Sn': 8.0, 'S': 32.0}\",\"('Ba', 'Mn', 'S', 'Sn')\",OTHERS,False\nmp-1194912,\"{'Y': 4.0, 'V': 4.0, 'Te': 8.0, 'O': 32.0}\",\"('O', 'Te', 'V', 'Y')\",OTHERS,False\nmp-1176954,\"{'Li': 6.0, 'Nb': 1.0, 'Ni': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'Nb', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1183146,\"{'B': 1.0, 'Au': 3.0}\",\"('Au', 'B')\",OTHERS,False\nmp-16521,\"{'Al': 3.0, 'Os': 2.0}\",\"('Al', 'Os')\",OTHERS,False\nmp-690550,\"{'Co': 14.0, 'Ru': 4.0, 'O': 24.0}\",\"('Co', 'O', 'Ru')\",OTHERS,False\nmp-9201,\"{'K': 4.0, 'Ge': 2.0, 'Au': 7.0}\",\"('Au', 'Ge', 'K')\",OTHERS,False\nmp-1201395,\"{'Tb': 16.0, 'Te': 12.0, 'N': 8.0}\",\"('N', 'Tb', 'Te')\",OTHERS,False\nmp-645338,\"{'Sm': 16.0, 'B': 48.0, 'O': 96.0}\",\"('B', 'O', 'Sm')\",OTHERS,False\nmp-1205720,\"{'Ho': 2.0, 'Mn': 4.0, 'Si': 2.0, 'C': 2.0}\",\"('C', 'Ho', 'Mn', 'Si')\",OTHERS,False\nmp-29507,\"{'O': 26.0, 'V': 6.0, 'Cu': 11.0}\",\"('Cu', 'O', 'V')\",OTHERS,False\nmp-1199783,\"{'Re': 12.0, 'H': 12.0, 'C': 48.0, 'O': 48.0}\",\"('C', 'H', 'O', 'Re')\",OTHERS,False\nmp-1176347,\"{'Na': 10.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Na', 'O', 'P')\",OTHERS,False\nmp-1183114,\"{'Ac': 2.0, 'Cu': 6.0}\",\"('Ac', 'Cu')\",OTHERS,False\nmp-531201,\"{'Cd': 10.0, 'Ho': 20.0, 'Se': 40.0}\",\"('Cd', 'Ho', 'Se')\",OTHERS,False\nmp-766427,\"{'K': 4.0, 'Na': 2.0, 'Zn': 4.0, 'H': 10.0, 'C': 8.0, 'O': 28.0}\",\"('C', 'H', 'K', 'Na', 'O', 'Zn')\",OTHERS,False\nmp-1093703,\"{'Zr': 2.0, 'Zn': 1.0, 'Cd': 1.0}\",\"('Cd', 'Zn', 'Zr')\",OTHERS,False\nmp-1216881,\"{'U': 1.0, 'Al': 9.0, 'Fe': 3.0}\",\"('Al', 'Fe', 'U')\",OTHERS,False\nmp-865403,\"{'Tm': 4.0, 'Mg': 2.0, 'Ge': 4.0}\",\"('Ge', 'Mg', 'Tm')\",OTHERS,False\nmp-28601,\"{'Br': 40.0, 'Nb': 8.0}\",\"('Br', 'Nb')\",OTHERS,False\nmp-1209795,\"{'Pr': 4.0, 'Al': 18.0, 'Ir': 6.0}\",\"('Al', 'Ir', 'Pr')\",OTHERS,False\nmp-571165,\"{'Dy': 8.0, 'Fe': 56.0, 'C': 4.0}\",\"('C', 'Dy', 'Fe')\",OTHERS,False\nmp-8689,\"{'V': 4.0, 'Ge': 1.0, 'Se': 8.0}\",\"('Ge', 'Se', 'V')\",OTHERS,False\nmp-772938,\"{'Li': 4.0, 'Ta': 8.0, 'O': 22.0}\",\"('Li', 'O', 'Ta')\",OTHERS,False\nmp-862621,\"{'Ga': 2.0, 'Pt': 6.0}\",\"('Ga', 'Pt')\",OTHERS,False\nmp-754167,\"{'Mn': 5.0, 'O': 1.0, 'F': 11.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1217987,\"{'Ta': 3.0, 'Co': 2.0, 'Mo': 1.0}\",\"('Co', 'Mo', 'Ta')\",OTHERS,False\nmp-505750,\"{'Rb': 8.0, 'Sn': 16.0, 'Se': 32.0}\",\"('Rb', 'Se', 'Sn')\",OTHERS,False\nmp-1020647,\"{'Sr': 8.0, 'Li': 4.0, 'Be': 4.0, 'B': 12.0, 'O': 32.0}\",\"('B', 'Be', 'Li', 'O', 'Sr')\",OTHERS,False\nmp-1238141,\"{'V': 4.0, 'Ni': 2.0, 'H': 16.0, 'O': 20.0}\",\"('H', 'Ni', 'O', 'V')\",OTHERS,False\nmp-1203000,\"{'Nd': 4.0, 'H': 44.0, 'S': 12.0, 'O': 64.0}\",\"('H', 'Nd', 'O', 'S')\",OTHERS,False\nmp-867847,\"{'La': 2.0, 'Zn': 1.0, 'Ru': 1.0}\",\"('La', 'Ru', 'Zn')\",OTHERS,False\nmp-1196071,\"{'Ba': 28.0, 'Fe': 28.0, 'O': 70.0}\",\"('Ba', 'Fe', 'O')\",OTHERS,False\nmp-30747,\"{'Zn': 22.0, 'Ir': 4.0}\",\"('Ir', 'Zn')\",OTHERS,False\nmp-1190441,\"{'Li': 4.0, 'Sb': 4.0, 'F': 16.0}\",\"('F', 'Li', 'Sb')\",OTHERS,False\nmp-1275,\"{'Si': 2.0, 'Mo': 6.0}\",\"('Mo', 'Si')\",OTHERS,False\nmp-676556,\"{'Sm': 2.0, 'Zr': 8.0, 'O': 19.0}\",\"('O', 'Sm', 'Zr')\",OTHERS,False\nmp-20441,\"{'Mn': 2.0, 'Co': 2.0, 'C': 1.0}\",\"('C', 'Co', 'Mn')\",OTHERS,False\nmp-1187045,\"{'Sn': 3.0, 'Mo': 1.0}\",\"('Mo', 'Sn')\",OTHERS,False\nmp-22401,\"{'Si': 20.0, 'Nd': 8.0, 'Re': 12.0}\",\"('Nd', 'Re', 'Si')\",OTHERS,False\nmp-559537,\"{'Ca': 8.0, 'P': 12.0, 'O': 38.0}\",\"('Ca', 'O', 'P')\",OTHERS,False\nmp-1228000,\"{'Ca': 2.0, 'Mn': 7.0, 'Si': 10.0, 'H': 12.0, 'O': 35.0}\",\"('Ca', 'H', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1207109,\"{'Sm': 1.0, 'Hg': 2.0}\",\"('Hg', 'Sm')\",OTHERS,False\nmp-13498,\"{'Mg': 1.0, 'Tb': 2.0}\",\"('Mg', 'Tb')\",OTHERS,False\nmp-768358,\"{'Sc': 2.0, 'In': 2.0, 'O': 6.0}\",\"('In', 'O', 'Sc')\",OTHERS,False\nmp-753061,\"{'Ti': 1.0, 'Co': 3.0, 'O': 8.0}\",\"('Co', 'O', 'Ti')\",OTHERS,False\nmp-1184981,\"{'Li': 2.0, 'Nd': 1.0, 'Pb': 1.0}\",\"('Li', 'Nd', 'Pb')\",OTHERS,False\nmvc-11754,\"{'V': 4.0, 'S': 10.0}\",\"('S', 'V')\",OTHERS,False\nmp-1096757,\"{'Nb': 1.0, 'Cr': 2.0, 'Re': 1.0}\",\"('Cr', 'Nb', 'Re')\",OTHERS,False\nmp-772337,\"{'Cr': 12.0, 'Cu': 8.0, 'O': 48.0}\",\"('Cr', 'Cu', 'O')\",OTHERS,False\nmp-1218557,\"{'Sr': 6.0, 'Co': 2.0, 'Sb': 4.0, 'O': 18.0}\",\"('Co', 'O', 'Sb', 'Sr')\",OTHERS,False\nmp-1247120,\"{'Cd': 22.0, 'C': 4.0, 'N': 20.0}\",\"('C', 'Cd', 'N')\",OTHERS,False\nmp-868632,\"{'Mn': 2.0, 'O': 2.0, 'F': 2.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1187278,\"{'Tb': 3.0, 'Dy': 1.0}\",\"('Dy', 'Tb')\",OTHERS,False\nmp-772269,\"{'Mn': 6.0, 'P': 6.0, 'O': 24.0}\",\"('Mn', 'O', 'P')\",OTHERS,False\nmp-1073410,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-19858,{'Sr': 6.0},\"('Sr',)\",OTHERS,False\nmp-1211266,\"{'Li': 16.0, 'Mo': 12.0, 'O': 48.0}\",\"('Li', 'Mo', 'O')\",OTHERS,False\nmp-554598,\"{'B': 4.0, 'H': 20.0, 'C': 4.0, 'N': 2.0, 'Cl': 2.0, 'O': 6.0}\",\"('B', 'C', 'Cl', 'H', 'N', 'O')\",OTHERS,False\nmp-1095988,\"{'Sr': 2.0, 'Ag': 1.0, 'Hg': 1.0}\",\"('Ag', 'Hg', 'Sr')\",OTHERS,False\nmp-1064647,\"{'K': 2.0, 'N': 2.0}\",\"('K', 'N')\",OTHERS,False\nmp-1184199,\"{'Eu': 2.0, 'Ag': 1.0, 'Pb': 1.0}\",\"('Ag', 'Eu', 'Pb')\",OTHERS,False\nmp-1213927,\"{'Ce': 12.0, 'P': 4.0, 'Br': 12.0}\",\"('Br', 'Ce', 'P')\",OTHERS,False\nmp-1174745,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1210027,\"{'Rb': 36.0, 'Co': 8.0, 'S': 28.0}\",\"('Co', 'Rb', 'S')\",OTHERS,False\nmp-757597,\"{'Li': 4.0, 'Sn': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1197135,\"{'La': 2.0, 'N': 6.0, 'O': 26.0}\",\"('La', 'N', 'O')\",OTHERS,False\nmp-759865,\"{'Li': 3.0, 'V': 3.0, 'Cr': 3.0, 'P': 6.0, 'H': 6.0, 'O': 30.0}\",\"('Cr', 'H', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1228512,\"{'Ba': 3.0, 'Fe': 4.0, 'P': 8.0, 'Pb': 1.0, 'O': 28.0}\",\"('Ba', 'Fe', 'O', 'P', 'Pb')\",OTHERS,False\nmp-1210921,\"{'Li': 2.0, 'Zn': 8.0, 'Sn': 2.0, 'O': 16.0}\",\"('Li', 'O', 'Sn', 'Zn')\",OTHERS,False\nmp-1232186,\"{'Ce': 8.0, 'Mg': 4.0, 'S': 16.0}\",\"('Ce', 'Mg', 'S')\",OTHERS,False\nmp-1202615,\"{'Ho': 40.0, 'Ir': 8.0, 'Br': 72.0}\",\"('Br', 'Ho', 'Ir')\",OTHERS,False\nmp-12797,\"{'Be': 4.0, 'O': 14.0, 'Si': 4.0, 'Ba': 2.0}\",\"('Ba', 'Be', 'O', 'Si')\",OTHERS,False\nmp-1220054,\"{'Ni': 1.0, 'Rh': 1.0}\",\"('Ni', 'Rh')\",OTHERS,False\nmp-1239257,\"{'Zr': 4.0, 'Cr': 4.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cr', 'Cu', 'S', 'Zr')\",OTHERS,False\nmp-13903,\"{'F': 6.0, 'Zn': 1.0, 'Sn': 1.0}\",\"('F', 'Sn', 'Zn')\",OTHERS,False\nmp-765733,\"{'Mn': 8.0, 'O': 14.0, 'F': 2.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1246065,\"{'Ti': 4.0, 'Mo': 4.0, 'N': 12.0}\",\"('Mo', 'N', 'Ti')\",OTHERS,False\nmp-26035,\"{'Li': 18.0, 'O': 58.0, 'P': 16.0, 'Mn': 6.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-754685,\"{'Li': 4.0, 'Cr': 1.0, 'Fe': 1.0, 'W': 2.0, 'O': 12.0}\",\"('Cr', 'Fe', 'Li', 'O', 'W')\",OTHERS,False\nmp-1200101,\"{'Er': 12.0, 'P': 36.0, 'O': 108.0}\",\"('Er', 'O', 'P')\",OTHERS,False\nmp-23227,\"{'Cu': 2.0, 'Br': 2.0}\",\"('Br', 'Cu')\",OTHERS,False\nmp-1193242,\"{'Cs': 8.0, 'Co': 4.0, 'Cl': 16.0}\",\"('Cl', 'Co', 'Cs')\",OTHERS,False\nmp-1201134,\"{'Cu': 4.0, 'C': 8.0, 'O': 24.0}\",\"('C', 'Cu', 'O')\",OTHERS,False\nmp-864624,\"{'Ho': 1.0, 'Zn': 1.0, 'Rh': 2.0}\",\"('Ho', 'Rh', 'Zn')\",OTHERS,False\nmp-20596,\"{'Si': 2.0, 'Ni': 2.0, 'U': 1.0}\",\"('Ni', 'Si', 'U')\",OTHERS,False\nmp-31352,\"{'O': 18.0, 'Se': 6.0, 'Er': 4.0}\",\"('Er', 'O', 'Se')\",OTHERS,False\nmp-1019524,\"{'Ba': 3.0, 'P': 6.0, 'N': 8.0, 'O': 6.0}\",\"('Ba', 'N', 'O', 'P')\",OTHERS,False\nmp-1221447,\"{'Na': 2.0, 'Al': 1.0, 'Ge': 7.0, 'O': 16.0}\",\"('Al', 'Ge', 'Na', 'O')\",OTHERS,False\nmp-6391,\"{'Na': 4.0, 'Zn': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Na', 'O', 'Si', 'Zn')\",OTHERS,False\nmp-643586,\"{'Cs': 2.0, 'H': 2.0, 'S': 4.0, 'O': 12.0, 'F': 4.0}\",\"('Cs', 'F', 'H', 'O', 'S')\",OTHERS,False\nmp-715438,\"{'Fe': 6.0, 'O': 8.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-754430,\"{'Mn': 7.0, 'O': 12.0}\",\"('Mn', 'O')\",OTHERS,False\nmp-306,\"{'B': 6.0, 'O': 9.0}\",\"('B', 'O')\",OTHERS,False\nmvc-10016,\"{'La': 1.0, 'V': 1.0, 'Cr': 1.0, 'O': 6.0}\",\"('Cr', 'La', 'O', 'V')\",OTHERS,False\nmp-1183975,\"{'Ga': 1.0, 'Ge': 3.0}\",\"('Ga', 'Ge')\",OTHERS,False\nmp-1180190,\"{'Mo': 2.0, 'O': 10.0}\",\"('Mo', 'O')\",OTHERS,False\nmp-1174068,\"{'Li': 6.0, 'Mn': 4.0, 'O': 10.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-756691,\"{'Li': 6.0, 'Co': 1.0, 'Ni': 1.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Co', 'Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-764826,\"{'Li': 24.0, 'Mn': 12.0, 'F': 60.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-771487,\"{'Na': 10.0, 'Mn': 4.0, 'P': 2.0, 'C': 8.0, 'O': 32.0}\",\"('C', 'Mn', 'Na', 'O', 'P')\",OTHERS,False\nmp-1177323,\"{'Li': 4.0, 'Nb': 1.0, 'V': 3.0, 'Cr': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Li', 'Nb', 'O', 'P', 'V')\",OTHERS,False\nmp-1216790,\"{'V': 2.0, 'Mo': 1.0, 'O': 8.0}\",\"('Mo', 'O', 'V')\",OTHERS,False\nmp-1190399,\"{'Na': 4.0, 'Zn': 2.0, 'Ge': 4.0, 'S': 12.0}\",\"('Ge', 'Na', 'S', 'Zn')\",OTHERS,False\nmp-571347,\"{'Pr': 6.0, 'Cu': 2.0, 'Ge': 2.0, 'Se': 14.0}\",\"('Cu', 'Ge', 'Pr', 'Se')\",OTHERS,False\nmp-753420,\"{'Li': 2.0, 'Mn': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-650442,\"{'Tl': 12.0, 'Ag': 4.0, 'Te': 8.0}\",\"('Ag', 'Te', 'Tl')\",OTHERS,False\nmp-756392,\"{'Li': 2.0, 'Cu': 2.0, 'Si': 4.0, 'O': 10.0}\",\"('Cu', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1104788,\"{'Co': 2.0, 'B': 4.0, 'O': 8.0}\",\"('B', 'Co', 'O')\",OTHERS,False\nmp-722571,\"{'Re': 20.0, 'H': 20.0, 'C': 80.0, 'O': 80.0}\",\"('C', 'H', 'O', 'Re')\",OTHERS,False\nmp-567459,\"{'Ag': 4.0, 'C': 8.0, 'N': 12.0}\",\"('Ag', 'C', 'N')\",OTHERS,False\nmp-753624,\"{'Li': 2.0, 'Mn': 2.0, 'P': 2.0, 'O': 8.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-19997,\"{'Ni': 2.0, 'In': 4.0, 'Eu': 2.0}\",\"('Eu', 'In', 'Ni')\",OTHERS,False\nmp-980944,\"{'Yb': 6.0, 'Y': 2.0}\",\"('Y', 'Yb')\",OTHERS,False\nmp-864655,\"{'Pa': 1.0, 'Co': 3.0}\",\"('Co', 'Pa')\",OTHERS,False\nmp-753040,\"{'Li': 1.0, 'Mn': 1.0, 'P': 3.0, 'H': 1.0, 'O': 10.0}\",\"('H', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1239310,\"{'Sr': 4.0, 'Y': 2.0, 'Cr': 2.0, 'Cu': 4.0, 'O': 14.0}\",\"('Cr', 'Cu', 'O', 'Sr', 'Y')\",OTHERS,False\nmp-19237,\"{'O': 4.0, 'Sr': 2.0, 'Mo': 1.0}\",\"('Mo', 'O', 'Sr')\",OTHERS,False\nmp-1174721,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1208970,\"{'Sm': 3.0, 'P': 6.0, 'Pd': 20.0}\",\"('P', 'Pd', 'Sm')\",OTHERS,False\nmp-1196827,\"{'K': 16.0, 'Li': 4.0, 'H': 12.0, 'S': 16.0, 'O': 64.0}\",\"('H', 'K', 'Li', 'O', 'S')\",OTHERS,False\nmp-570286,\"{'Bi': 2.0, 'Se': 2.0}\",\"('Bi', 'Se')\",OTHERS,False\nmp-754127,\"{'Li': 2.0, 'Co': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,False\nmp-662575,\"{'Eu': 2.0, 'Sr': 4.0, 'Ga': 2.0, 'Cu': 4.0, 'O': 14.0}\",\"('Cu', 'Eu', 'Ga', 'O', 'Sr')\",OTHERS,False\nmp-14901,\"{'O': 48.0, 'Na': 12.0, 'Zn': 12.0, 'As': 12.0}\",\"('As', 'Na', 'O', 'Zn')\",OTHERS,False\nmp-568989,\"{'Li': 56.0, 'Ni': 8.0, 'N': 32.0}\",\"('Li', 'N', 'Ni')\",OTHERS,False\nmp-760071,\"{'Li': 10.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1106340,\"{'La': 10.0, 'Mn': 2.0, 'Pb': 6.0}\",\"('La', 'Mn', 'Pb')\",OTHERS,False\nmp-776447,\"{'Li': 4.0, 'Mn': 6.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1244597,\"{'Mg': 4.0, 'Ta': 4.0, 'Bi': 4.0, 'O': 20.0}\",\"('Bi', 'Mg', 'O', 'Ta')\",OTHERS,False\nmp-1199645,\"{'Mn': 8.0, 'As': 8.0, 'O': 36.0}\",\"('As', 'Mn', 'O')\",OTHERS,False\nmp-1184926,\"{'Ho': 1.0, 'Np': 3.0}\",\"('Ho', 'Np')\",OTHERS,False\nmp-1200738,\"{'Pr': 10.0, 'Sn': 20.0, 'Rh': 8.0}\",\"('Pr', 'Rh', 'Sn')\",OTHERS,False\nmp-780653,\"{'Li': 20.0, 'Mn': 2.0, 'Si': 4.0, 'O': 20.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1073360,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-863354,\"{'Co': 2.0, 'Sn': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Co', 'O', 'P', 'Sn')\",OTHERS,False\nmp-755639,\"{'Li': 4.0, 'Mn': 1.0, 'Fe': 3.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1190642,\"{'Er': 2.0, 'Fe': 12.0, 'P': 7.0}\",\"('Er', 'Fe', 'P')\",OTHERS,False\nmp-1200403,\"{'Nb': 8.0, 'Ag': 4.0, 'O': 22.0}\",\"('Ag', 'Nb', 'O')\",OTHERS,False\nmp-30136,\"{'O': 14.0, 'Mo': 4.0, 'Hg': 4.0}\",\"('Hg', 'Mo', 'O')\",OTHERS,False\nmp-1184848,\"{'K': 3.0, 'Mo': 1.0}\",\"('K', 'Mo')\",OTHERS,False\nmp-1210839,\"{'Lu': 4.0, 'Be': 4.0, 'Ge': 2.0, 'O': 14.0}\",\"('Be', 'Ge', 'Lu', 'O')\",OTHERS,False\nmp-1182249,\"{'Fe': 24.0, 'O': 32.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-1103642,\"{'Ag': 1.0, 'Mo': 6.0, 'Se': 8.0}\",\"('Ag', 'Mo', 'Se')\",OTHERS,False\nmp-753891,\"{'Zr': 4.0, 'Ti': 4.0, 'O': 16.0}\",\"('O', 'Ti', 'Zr')\",OTHERS,False\nmp-1195911,\"{'Sr': 2.0, 'Yb': 8.0, 'Si': 10.0, 'O': 34.0}\",\"('O', 'Si', 'Sr', 'Yb')\",OTHERS,False\nmp-560815,\"{'Al': 18.0, 'P': 18.0, 'O': 72.0}\",\"('Al', 'O', 'P')\",OTHERS,False\nmp-26393,\"{'Li': 4.0, 'O': 48.0, 'P': 12.0, 'Mn': 16.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-759338,\"{'Mn': 6.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1203491,\"{'Ho': 12.0, 'In': 4.0, 'S': 24.0}\",\"('Ho', 'In', 'S')\",OTHERS,False\nmp-1193222,\"{'Li': 3.0, 'Mg': 3.0, 'Al': 3.0, 'F': 18.0}\",\"('Al', 'F', 'Li', 'Mg')\",OTHERS,False\nmp-571057,\"{'K': 4.0, 'Y': 4.0, 'P': 8.0, 'Se': 24.0}\",\"('K', 'P', 'Se', 'Y')\",OTHERS,False\nmvc-7568,\"{'Mg': 4.0, 'Ti': 6.0, 'O': 16.0}\",\"('Mg', 'O', 'Ti')\",OTHERS,False\nmp-1219110,\"{'Sm': 2.0, 'Al': 2.0, 'Zn': 2.0}\",\"('Al', 'Sm', 'Zn')\",OTHERS,False\nmp-1025324,\"{'Si': 1.0, 'Sn': 1.0, 'Pt': 5.0}\",\"('Pt', 'Si', 'Sn')\",OTHERS,False\nmp-1229121,\"{'Ag': 1.0, 'Bi': 1.0, 'Pb': 1.0, 'S': 3.0}\",\"('Ag', 'Bi', 'Pb', 'S')\",OTHERS,False\nmp-27513,\"{'Cl': 10.0, 'Sc': 7.0}\",\"('Cl', 'Sc')\",OTHERS,False\nmp-16866,\"{'N': 6.0, 'O': 22.0, 'K': 2.0, 'Np': 2.0}\",\"('K', 'N', 'Np', 'O')\",OTHERS,False\nmp-1208837,\"{'Sr': 1.0, 'In': 2.0, 'Cu': 2.0}\",\"('Cu', 'In', 'Sr')\",OTHERS,False\nmp-1212460,\"{'H': 2.0, 'I': 2.0, 'N': 4.0}\",\"('H', 'I', 'N')\",OTHERS,False\nmp-1101509,\"{'Li': 1.0, 'Mo': 1.0, 'P': 2.0, 'O': 8.0}\",\"('Li', 'Mo', 'O', 'P')\",OTHERS,False\nmp-1182212,\"{'Ca': 16.0, 'Si': 8.0, 'O': 40.0}\",\"('Ca', 'O', 'Si')\",OTHERS,False\nmp-505731,\"{'O': 32.0, 'P': 8.0, 'Co': 4.0, 'Ba': 8.0}\",\"('Ba', 'Co', 'O', 'P')\",OTHERS,False\nmvc-13307,\"{'Y': 2.0, 'Mg': 1.0, 'Mn': 2.0, 'S': 2.0, 'O': 5.0}\",\"('Mg', 'Mn', 'O', 'S', 'Y')\",OTHERS,False\nmp-1219174,\"{'Sm': 1.0, 'Zn': 2.0, 'Ga': 2.0}\",\"('Ga', 'Sm', 'Zn')\",OTHERS,False\nmp-19058,\"{'Ba': 6.0, 'Co': 2.0, 'Ru': 4.0, 'O': 18.0}\",\"('Ba', 'Co', 'O', 'Ru')\",OTHERS,False\nmp-1228920,\"{'Cs': 2.0, 'Fe': 2.0, 'Cu': 2.0, 'F': 12.0}\",\"('Cs', 'Cu', 'F', 'Fe')\",OTHERS,False\nmp-32530,\"{'Li': 12.0, 'V': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1008920,\"{'Mn': 2.0, 'Ge': 1.0}\",\"('Ge', 'Mn')\",OTHERS,False\nmp-27410,\"{'P': 3.0, 'Sn': 4.0}\",\"('P', 'Sn')\",OTHERS,False\nmp-1095969,\"{'Mn': 1.0, 'Nb': 2.0, 'Cr': 1.0}\",\"('Cr', 'Mn', 'Nb')\",OTHERS,False\nmp-1225885,\"{'Cu': 2.0, 'Ni': 1.0, 'Sn': 1.0, 'Se': 4.0}\",\"('Cu', 'Ni', 'Se', 'Sn')\",OTHERS,False\nmp-1247345,\"{'Ba': 6.0, 'Fe': 4.0, 'N': 8.0}\",\"('Ba', 'Fe', 'N')\",OTHERS,False\nmp-21065,\"{'Si': 4.0, 'P': 8.0}\",\"('P', 'Si')\",OTHERS,False\nmp-1103571,\"{'Al': 2.0, 'Si': 2.0, 'O': 11.0}\",\"('Al', 'O', 'Si')\",OTHERS,False\nmp-1095419,\"{'Ta': 4.0, 'Cr': 4.0, 'P': 4.0}\",\"('Cr', 'P', 'Ta')\",OTHERS,False\nmp-7574,\"{'B': 2.0, 'Al': 2.0, 'Mo': 2.0}\",\"('Al', 'B', 'Mo')\",OTHERS,False\nmp-26875,\"{'Li': 8.0, 'O': 16.0, 'P': 4.0, 'Cu': 4.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-1103857,\"{'U': 2.0, 'Mn': 8.0, 'P': 4.0}\",\"('Mn', 'P', 'U')\",OTHERS,False\nmp-1217081,\"{'Ti': 3.0, 'Al': 5.0}\",\"('Al', 'Ti')\",OTHERS,False\nmp-758997,\"{'Li': 3.0, 'Cu': 3.0, 'C': 3.0, 'O': 9.0}\",\"('C', 'Cu', 'Li', 'O')\",OTHERS,False\nmp-1182130,\"{'C': 6.0, 'I': 2.0, 'N': 2.0}\",\"('C', 'I', 'N')\",OTHERS,False\nmp-1226793,\"{'Ce': 4.0, 'Ni': 8.0, 'B': 12.0}\",\"('B', 'Ce', 'Ni')\",OTHERS,False\nmp-542181,\"{'Eu': 2.0, 'K': 6.0, 'V': 4.0, 'O': 16.0}\",\"('Eu', 'K', 'O', 'V')\",OTHERS,False\nmp-864991,\"{'Ca': 2.0, 'Ag': 1.0, 'Pb': 1.0}\",\"('Ag', 'Ca', 'Pb')\",OTHERS,False\nmp-504495,\"{'Na': 4.0, 'Zn': 4.0, 'Mo': 4.0, 'O': 20.0, 'H': 4.0}\",\"('H', 'Mo', 'Na', 'O', 'Zn')\",OTHERS,False\nmp-653559,\"{'P': 16.0, 'Se': 12.0, 'I': 8.0}\",\"('I', 'P', 'Se')\",OTHERS,False\nmp-23996,\"{'H': 16.0, 'Be': 2.0, 'O': 16.0, 'S': 2.0}\",\"('Be', 'H', 'O', 'S')\",OTHERS,False\nmp-570527,\"{'Yb': 20.0, 'Au': 16.0}\",\"('Au', 'Yb')\",OTHERS,False\nmp-1249385,\"{'Ba': 2.0, 'Ti': 2.0, 'Al': 1.0, 'Tl': 1.0, 'O': 7.0}\",\"('Al', 'Ba', 'O', 'Ti', 'Tl')\",OTHERS,False\nmp-1206002,\"{'Er': 6.0, 'Fe': 1.0, 'Bi': 2.0}\",\"('Bi', 'Er', 'Fe')\",OTHERS,False\nmp-581681,\"{'Ca': 42.0, 'Mn': 8.0, 'Sb': 36.0}\",\"('Ca', 'Mn', 'Sb')\",OTHERS,False\nmp-1206973,\"{'Fe': 2.0, 'Co': 2.0, 'Ge': 2.0}\",\"('Co', 'Fe', 'Ge')\",OTHERS,False\nmp-1218764,\"{'Sr': 2.0, 'Tb': 1.0, 'Cu': 2.0, 'Ir': 1.0, 'O': 8.0}\",\"('Cu', 'Ir', 'O', 'Sr', 'Tb')\",OTHERS,False\nmp-554747,\"{'Li': 20.0, 'La': 12.0, 'Nb': 8.0, 'O': 48.0}\",\"('La', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-1187264,\"{'Tb': 2.0, 'Ni': 1.0, 'Ir': 1.0}\",\"('Ir', 'Ni', 'Tb')\",OTHERS,False\nmvc-16518,\"{'Ca': 4.0, 'Ta': 4.0, 'Cr': 2.0, 'O': 16.0}\",\"('Ca', 'Cr', 'O', 'Ta')\",OTHERS,False\nmp-1227730,\"{'Ca': 4.0, 'Fe': 3.0, 'As': 8.0, 'Pt': 1.0}\",\"('As', 'Ca', 'Fe', 'Pt')\",OTHERS,False\nmp-1184192,\"{'Er': 6.0, 'Tm': 2.0}\",\"('Er', 'Tm')\",OTHERS,False\nmp-505262,\"{'Gd': 2.0, 'Se': 2.0, 'Cu': 2.0, 'O': 2.0}\",\"('Cu', 'Gd', 'O', 'Se')\",OTHERS,False\nmp-1174519,\"{'Li': 5.0, 'Mn': 3.0, 'O': 8.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-569696,\"{'La': 1.0, 'Al': 2.0, 'Ga': 2.0}\",\"('Al', 'Ga', 'La')\",OTHERS,False\nmp-1184692,\"{'Ho': 2.0, 'Zn': 1.0, 'Pt': 1.0}\",\"('Ho', 'Pt', 'Zn')\",OTHERS,False\nmp-772617,\"{'Zn': 4.0, 'N': 8.0, 'O': 24.0}\",\"('N', 'O', 'Zn')\",OTHERS,False\nmp-1210330,\"{'Na': 8.0, 'Zr': 4.0, 'Ge': 10.0, 'H': 2.0, 'O': 32.0}\",\"('Ge', 'H', 'Na', 'O', 'Zr')\",OTHERS,False\nmp-29743,\"{'O': 56.0, 'Sr': 20.0, 'U': 12.0}\",\"('O', 'Sr', 'U')\",OTHERS,False\nmp-1210278,\"{'Pu': 8.0, 'Mo': 16.0, 'O': 64.0}\",\"('Mo', 'O', 'Pu')\",OTHERS,False\nmp-1203156,\"{'Y': 8.0, 'Cd': 8.0, 'Bi': 8.0, 'O': 32.0}\",\"('Bi', 'Cd', 'O', 'Y')\",OTHERS,False\nmp-1205834,\"{'Er': 2.0, 'Al': 4.0, 'Ni': 1.0, 'Ge': 2.0}\",\"('Al', 'Er', 'Ge', 'Ni')\",OTHERS,False\nmp-4007,\"{'Si': 2.0, 'Ni': 2.0, 'Nd': 1.0}\",\"('Nd', 'Ni', 'Si')\",OTHERS,False\nmp-1018900,\"{'Pr': 2.0, 'Cu': 2.0, 'Pb': 2.0}\",\"('Cu', 'Pb', 'Pr')\",OTHERS,False\nmp-1228832,\"{'Al': 1.0, 'Ni': 6.0, 'Ge': 1.0}\",\"('Al', 'Ge', 'Ni')\",OTHERS,False\nmp-1205555,\"{'U': 2.0, 'Si': 2.0, 'Os': 4.0, 'C': 2.0}\",\"('C', 'Os', 'Si', 'U')\",OTHERS,False\nmp-1178538,\"{'Ba': 4.0, 'Ca': 4.0, 'I': 16.0}\",\"('Ba', 'Ca', 'I')\",OTHERS,False\nmp-754942,\"{'Sr': 2.0, 'Sm': 4.0, 'O': 8.0}\",\"('O', 'Sm', 'Sr')\",OTHERS,False\nmp-652101,\"{'Zn': 20.0, 'Fe': 2.0, 'B': 16.0, 'Rh': 36.0}\",\"('B', 'Fe', 'Rh', 'Zn')\",OTHERS,False\nmp-972472,\"{'Sn': 1.0, 'As': 3.0}\",\"('As', 'Sn')\",OTHERS,False\nmp-769626,\"{'Li': 4.0, 'Mn': 2.0, 'Nb': 3.0, 'Fe': 3.0, 'O': 16.0}\",\"('Fe', 'Li', 'Mn', 'Nb', 'O')\",OTHERS,False\nmp-573051,\"{'Re': 6.0, 'O': 18.0, 'F': 6.0}\",\"('F', 'O', 'Re')\",OTHERS,False\nmp-1186693,\"{'Pr': 2.0, 'Mg': 1.0, 'Cd': 1.0}\",\"('Cd', 'Mg', 'Pr')\",OTHERS,False\nmp-2503,\"{'Se': 8.0, 'Pd': 14.0}\",\"('Pd', 'Se')\",OTHERS,False\nmp-1186346,\"{'Np': 1.0, 'Sn': 1.0, 'O': 3.0}\",\"('Np', 'O', 'Sn')\",OTHERS,False\nmp-1196261,\"{'Sb': 8.0, 'Xe': 4.0, 'F': 38.0}\",\"('F', 'Sb', 'Xe')\",OTHERS,False\nmp-1103729,\"{'Na': 1.0, 'Ge': 6.0, 'As': 6.0}\",\"('As', 'Ge', 'Na')\",OTHERS,False\nmp-510728,\"{'Co': 1.0, 'Mn': 1.0, 'N': 12.0, 'H': 18.0, 'C': 6.0}\",\"('C', 'Co', 'H', 'Mn', 'N')\",OTHERS,False\nmp-765725,\"{'Na': 3.0, 'Li': 5.0, 'Mn': 5.0, 'O': 9.0}\",\"('Li', 'Mn', 'Na', 'O')\",OTHERS,False\nmp-756075,\"{'Cr': 1.0, 'Te': 1.0, 'W': 2.0, 'O': 12.0}\",\"('Cr', 'O', 'Te', 'W')\",OTHERS,False\nmp-722344,\"{'K': 1.0, 'Ca': 4.0, 'B': 22.0, 'H': 18.0, 'Cl': 1.0, 'O': 46.0}\",\"('B', 'Ca', 'Cl', 'H', 'K', 'O')\",OTHERS,False\nmp-362,\"{'Ni': 6.0, 'S': 4.0}\",\"('Ni', 'S')\",OTHERS,False\nmp-1181143,\"{'K': 4.0, 'Tb': 4.0, 'N': 16.0, 'O': 56.0}\",\"('K', 'N', 'O', 'Tb')\",OTHERS,False\nmp-1094552,\"{'Mg': 6.0, 'Sb': 6.0}\",\"('Mg', 'Sb')\",OTHERS,False\nmp-1219321,\"{'Sm': 4.0, 'Cr': 1.0, 'Fe': 33.0}\",\"('Cr', 'Fe', 'Sm')\",OTHERS,False\nmp-1178360,\"{'Dy': 4.0, 'In': 4.0, 'O': 12.0}\",\"('Dy', 'In', 'O')\",OTHERS,False\nmp-1218644,\"{'Sr': 5.0, 'Ca': 1.0, 'Cu': 4.0, 'Bi': 4.0, 'O': 8.0}\",\"('Bi', 'Ca', 'Cu', 'O', 'Sr')\",OTHERS,False\nmp-1029125,\"{'Te': 2.0, 'Mo': 1.0, 'W': 3.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-753120,\"{'W': 4.0, 'O': 4.0, 'F': 16.0}\",\"('F', 'O', 'W')\",OTHERS,False\nmp-29151,\"{'Li': 5.0, 'N': 1.0, 'Cl': 2.0}\",\"('Cl', 'Li', 'N')\",OTHERS,False\nmp-759214,\"{'Co': 4.0, 'P': 12.0, 'O': 36.0}\",\"('Co', 'O', 'P')\",OTHERS,False\nmp-569913,\"{'Ce': 6.0, 'Si': 2.0, 'Pt': 10.0}\",\"('Ce', 'Pt', 'Si')\",OTHERS,False\nmp-1220045,\"{'Os': 3.0, 'W': 3.0, 'C': 2.0}\",\"('C', 'Os', 'W')\",OTHERS,False\nmp-1245610,\"{'Si': 12.0, 'Sb': 20.0, 'N': 36.0}\",\"('N', 'Sb', 'Si')\",OTHERS,False\nmp-1225095,\"{'H': 4.0, 'Ru': 4.0, 'Rh': 4.0, 'C': 24.0, 'O': 24.0}\",\"('C', 'H', 'O', 'Rh', 'Ru')\",OTHERS,False\nmp-541870,\"{'K': 4.0, 'Al': 8.0, 'P': 8.0, 'O': 44.0, 'H': 20.0}\",\"('Al', 'H', 'K', 'O', 'P')\",OTHERS,False\nmp-714885,\"{'V': 2.0, 'O': 2.0}\",\"('O', 'V')\",OTHERS,False\nmp-1038709,\"{'Cs': 1.0, 'Mg': 30.0, 'Ga': 1.0, 'O': 32.0}\",\"('Cs', 'Ga', 'Mg', 'O')\",OTHERS,False\nmp-743603,\"{'Li': 3.0, 'Ti': 3.0, 'Fe': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Li', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1100586,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1179515,\"{'Sc': 6.0, 'Ru': 2.0, 'C': 8.0}\",\"('C', 'Ru', 'Sc')\",OTHERS,False\nmp-1223486,\"{'La': 18.0, 'Al': 10.0, 'Se': 42.0}\",\"('Al', 'La', 'Se')\",OTHERS,False\nmp-770831,\"{'Na': 6.0, 'Co': 2.0, 'B': 2.0, 'S': 2.0, 'O': 14.0}\",\"('B', 'Co', 'Na', 'O', 'S')\",OTHERS,False\nmp-11734,\"{'O': 6.0, 'Mg': 1.0, 'Sr': 2.0, 'Re': 1.0}\",\"('Mg', 'O', 'Re', 'Sr')\",OTHERS,False\nmp-1193559,\"{'Rb': 4.0, 'S': 4.0, 'N': 4.0, 'O': 16.0}\",\"('N', 'O', 'Rb', 'S')\",OTHERS,False\nmp-764980,\"{'Li': 4.0, 'Mn': 4.0, 'F': 20.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-778364,\"{'Na': 12.0, 'Ti': 4.0, 'O': 14.0}\",\"('Na', 'O', 'Ti')\",OTHERS,False\nmp-8176,\"{'O': 2.0, 'Rb': 1.0, 'Tl': 1.0}\",\"('O', 'Rb', 'Tl')\",OTHERS,False\nmp-1196125,\"{'Si': 14.0, 'H': 84.0, 'C': 28.0}\",\"('C', 'H', 'Si')\",OTHERS,False\nmp-690435,\"{'Li': 7.0, 'Mn': 11.0, 'O': 24.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-5900,\"{'F': 32.0, 'Zr': 4.0, 'Ba': 8.0}\",\"('Ba', 'F', 'Zr')\",OTHERS,False\nmp-775804,\"{'Li': 12.0, 'Sb': 4.0, 'S': 12.0}\",\"('Li', 'S', 'Sb')\",OTHERS,False\nmp-29598,\"{'N': 14.0, 'Na': 2.0, 'P': 8.0}\",\"('N', 'Na', 'P')\",OTHERS,False\nmp-1080277,\"{'Ce': 6.0, 'Se': 12.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-1185851,\"{'Mg': 2.0, 'C': 2.0}\",\"('C', 'Mg')\",OTHERS,False\nmp-761745,\"{'Sr': 2.0, 'Cd': 4.0, 'H': 32.0, 'Br': 12.0, 'O': 16.0}\",\"('Br', 'Cd', 'H', 'O', 'Sr')\",OTHERS,False\nmp-2201,\"{'Se': 1.0, 'Pb': 1.0}\",\"('Pb', 'Se')\",OTHERS,False\nmp-1227444,\"{'Bi': 1.0, 'Pb': 1.0, 'Br': 1.0, 'O': 2.0}\",\"('Bi', 'Br', 'O', 'Pb')\",OTHERS,False\nmp-755409,\"{'Li': 5.0, 'Mn': 2.0, 'Cu': 3.0, 'O': 10.0}\",\"('Cu', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-510262,\"{'O': 2.0, 'Cs': 6.0}\",\"('Cs', 'O')\",OTHERS,False\nmp-1195553,\"{'Zr': 2.0, 'Zn': 40.0, 'Fe': 4.0}\",\"('Fe', 'Zn', 'Zr')\",OTHERS,False\nmp-1226753,\"{'Cd': 1.0, 'Bi': 1.0, 'I': 1.0, 'O': 2.0}\",\"('Bi', 'Cd', 'I', 'O')\",OTHERS,False\nmp-693655,\"{'Ba': 4.0, 'Sm': 7.0, 'Si': 12.0, 'B': 1.0, 'N': 27.0}\",\"('B', 'Ba', 'N', 'Si', 'Sm')\",OTHERS,False\nmp-760261,\"{'Li': 12.0, 'Cr': 4.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Cr', 'Li', 'O')\",OTHERS,False\nmp-1215547,\"{'Zn': 3.0, 'Cr': 8.0, 'Fe': 1.0, 'S': 16.0}\",\"('Cr', 'Fe', 'S', 'Zn')\",OTHERS,False\nmp-540610,\"{'K': 4.0, 'U': 14.0, 'O': 44.0}\",\"('K', 'O', 'U')\",OTHERS,False\nmp-24055,\"{'H': 24.0, 'N': 24.0, 'O': 32.0, 'K': 4.0, 'Co': 4.0}\",\"('Co', 'H', 'K', 'N', 'O')\",OTHERS,False\nmp-22711,\"{'Al': 14.0, 'Gd': 2.0, 'Au': 6.0}\",\"('Al', 'Au', 'Gd')\",OTHERS,False\nmp-1205588,\"{'Mn': 6.0, 'Ge': 2.0, 'N': 2.0}\",\"('Ge', 'Mn', 'N')\",OTHERS,False\nmp-627291,\"{'V': 6.0, 'H': 12.0, 'O': 20.0}\",\"('H', 'O', 'V')\",OTHERS,False\nmp-1237686,\"{'Rb': 8.0, 'Al': 4.0, 'H': 16.0, 'N': 8.0}\",\"('Al', 'H', 'N', 'Rb')\",OTHERS,False\nmp-1079888,\"{'Ti': 4.0, 'Se': 4.0}\",\"('Se', 'Ti')\",OTHERS,False\nmp-29412,\"{'Br': 28.0, 'Ta': 12.0}\",\"('Br', 'Ta')\",OTHERS,False\nmp-4736,\"{'O': 56.0, 'P': 20.0, 'Nd': 4.0}\",\"('Nd', 'O', 'P')\",OTHERS,False\nmp-18998,\"{'Sr': 16.0, 'Mn': 12.0, 'O': 40.0}\",\"('Mn', 'O', 'Sr')\",OTHERS,False\nmp-4495,\"{'Li': 2.0, 'K': 2.0, 'Te': 2.0}\",\"('K', 'Li', 'Te')\",OTHERS,False\nmp-774722,\"{'Li': 1.0, 'La': 20.0, 'Cu': 9.0, 'O': 40.0}\",\"('Cu', 'La', 'Li', 'O')\",OTHERS,False\nmp-1187727,\"{'Yb': 1.0, 'Eu': 1.0, 'Zn': 2.0}\",\"('Eu', 'Yb', 'Zn')\",OTHERS,False\nmp-1210713,\"{'Mn': 13.0, 'Fe': 1.0, 'Si': 2.0, 'O': 22.0}\",\"('Fe', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-980049,\"{'Yb': 3.0, 'Re': 1.0}\",\"('Re', 'Yb')\",OTHERS,False\nmp-18282,\"{'O': 16.0, 'Sc': 2.0, 'Zn': 2.0, 'Mo': 6.0}\",\"('Mo', 'O', 'Sc', 'Zn')\",OTHERS,False\nmp-531213,\"{'Ca': 13.0, 'F': 43.0, 'Y': 6.0}\",\"('Ca', 'F', 'Y')\",OTHERS,False\nmp-757595,\"{'H': 24.0, 'S': 8.0, 'N': 8.0, 'O': 24.0}\",\"('H', 'N', 'O', 'S')\",OTHERS,False\nmp-1008865,\"{'Nd': 1.0, 'Cd': 2.0}\",\"('Cd', 'Nd')\",OTHERS,False\nmp-1097314,\"{'Mn': 1.0, 'Ga': 1.0, 'Fe': 2.0}\",\"('Fe', 'Ga', 'Mn')\",OTHERS,False\nmp-1221406,\"{'Na': 3.0, 'Eu': 3.0, 'F': 12.0}\",\"('Eu', 'F', 'Na')\",OTHERS,False\nmp-1201218,\"{'Si': 18.0, 'C': 16.0, 'N': 2.0, 'O': 38.0}\",\"('C', 'N', 'O', 'Si')\",OTHERS,False\nmp-1187561,\"{'Yb': 1.0, 'Ga': 1.0, 'O': 3.0}\",\"('Ga', 'O', 'Yb')\",OTHERS,False\nmp-1072492,\"{'Ca': 2.0, 'C': 4.0}\",\"('C', 'Ca')\",OTHERS,False\nmp-1205778,\"{'Ho': 3.0, 'Cd': 3.0, 'Au': 3.0}\",\"('Au', 'Cd', 'Ho')\",OTHERS,False\nmp-776576,\"{'Li': 2.0, 'Ti': 2.0, 'Mn': 1.0, 'Cr': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Li', 'Mn', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1223695,\"{'In': 1.0, 'Sn': 1.0, 'Te': 2.0}\",\"('In', 'Sn', 'Te')\",OTHERS,False\nmp-1001835,\"{'Li': 2.0, 'B': 2.0}\",\"('B', 'Li')\",OTHERS,False\nmp-973895,\"{'Ni': 3.0, 'H': 1.0}\",\"('H', 'Ni')\",OTHERS,False\nmp-999263,\"{'Rh': 2.0, 'N': 2.0}\",\"('N', 'Rh')\",OTHERS,False\nmp-1114653,\"{'K': 1.0, 'Rb': 2.0, 'Al': 1.0, 'Cl': 6.0}\",\"('Al', 'Cl', 'K', 'Rb')\",OTHERS,False\nmp-1094554,\"{'Mg': 8.0, 'Sb': 4.0}\",\"('Mg', 'Sb')\",OTHERS,False\nmp-34501,\"{'Fe': 4.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Fe', 'O')\",OTHERS,False\nmp-1025347,\"{'Ti': 2.0, 'Co': 1.0, 'Se': 4.0}\",\"('Co', 'Se', 'Ti')\",OTHERS,False\nmp-556458,\"{'Ba': 3.0, 'Ca': 3.0, 'C': 6.0, 'O': 18.0}\",\"('Ba', 'C', 'Ca', 'O')\",OTHERS,False\nmp-757826,\"{'Cs': 1.0, 'Ca': 1.0, 'N': 3.0, 'O': 6.0}\",\"('Ca', 'Cs', 'N', 'O')\",OTHERS,False\nmp-1223419,\"{'K': 2.0, 'Si': 10.0, 'B': 2.0, 'O': 26.0}\",\"('B', 'K', 'O', 'Si')\",OTHERS,False\nmp-1096027,\"{'Ti': 2.0, 'Zn': 1.0, 'Rh': 1.0}\",\"('Rh', 'Ti', 'Zn')\",OTHERS,False\nmp-1200006,\"{'Ag': 16.0, 'H': 128.0, 'C': 48.0, 'S': 32.0, 'N': 16.0, 'O': 48.0}\",\"('Ag', 'C', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-1210341,\"{'Na': 8.0, 'Al': 6.0, 'Si': 6.0, 'N': 2.0, 'O': 24.0}\",\"('Al', 'N', 'Na', 'O', 'Si')\",OTHERS,False\nmp-30843,\"{'Sr': 28.0, 'Pt': 12.0}\",\"('Pt', 'Sr')\",OTHERS,False\nmp-556201,\"{'Ag': 2.0, 'Sb': 2.0, 'C': 4.0, 'N': 4.0, 'Cl': 4.0, 'F': 12.0}\",\"('Ag', 'C', 'Cl', 'F', 'N', 'Sb')\",OTHERS,False\nmvc-15475,\"{'Al': 1.0, 'Ag': 1.0, 'O': 3.0}\",\"('Ag', 'Al', 'O')\",OTHERS,False\nmp-1208552,\"{'Tb': 4.0, 'Al': 18.0, 'Ir': 6.0}\",\"('Al', 'Ir', 'Tb')\",OTHERS,False\nmp-665747,\"{'Eu': 4.0, 'Ag': 4.0}\",\"('Ag', 'Eu')\",OTHERS,False\nmp-6425,\"{'Li': 6.0, 'O': 24.0, 'P': 6.0, 'In': 4.0}\",\"('In', 'Li', 'O', 'P')\",OTHERS,False\nmp-759823,\"{'Li': 12.0, 'Cu': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-27556,\"{'O': 24.0, 'Nb': 8.0, 'Cs': 8.0}\",\"('Cs', 'Nb', 'O')\",OTHERS,False\nmp-27760,\"{'Pr': 2.0, 'Si': 4.0}\",\"('Pr', 'Si')\",OTHERS,False\nmp-28645,\"{'N': 2.0, 'Ca': 2.0, 'Ni': 2.0}\",\"('Ca', 'N', 'Ni')\",OTHERS,False\nmp-753239,\"{'Li': 2.0, 'Sn': 2.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('H', 'Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-755944,\"{'Li': 3.0, 'Fe': 2.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-646609,\"{'U': 4.0, 'In': 2.0, 'Rh': 4.0}\",\"('In', 'Rh', 'U')\",OTHERS,False\nmp-973738,\"{'Ge': 1.0, 'B': 1.0, 'O': 3.0}\",\"('B', 'Ge', 'O')\",OTHERS,False\nmp-1209298,\"{'Rb': 2.0, 'P': 30.0}\",\"('P', 'Rb')\",OTHERS,False\nmp-684642,\"{'S': 18.0, 'N': 18.0}\",\"('N', 'S')\",OTHERS,False\nmp-10209,\"{'Al': 3.0, 'Ni': 1.0, 'Ge': 2.0, 'Y': 3.0}\",\"('Al', 'Ge', 'Ni', 'Y')\",OTHERS,False\nmp-12569,\"{'B': 16.0, 'Pr': 4.0}\",\"('B', 'Pr')\",OTHERS,False\nmp-1223708,\"{'K': 2.0, 'Mo': 8.0, 'O': 13.0}\",\"('K', 'Mo', 'O')\",OTHERS,False\nmp-560060,\"{'Nd': 2.0, 'Sn': 4.0, 'P': 20.0, 'Cl': 74.0, 'O': 24.0}\",\"('Cl', 'Nd', 'O', 'P', 'Sn')\",OTHERS,False\nmp-571079,\"{'Tl': 2.0, 'Cl': 2.0}\",\"('Cl', 'Tl')\",OTHERS,False\nmp-1199182,\"{'K': 8.0, 'Cu': 16.0, 'Sb': 8.0, 'Se': 24.0}\",\"('Cu', 'K', 'Sb', 'Se')\",OTHERS,False\nmp-1076681,\"{'Ba': 1.0, 'Sr': 7.0, 'Co': 6.0, 'Cu': 2.0, 'O': 24.0}\",\"('Ba', 'Co', 'Cu', 'O', 'Sr')\",OTHERS,False\nmp-1019091,\"{'La': 2.0, 'Se': 4.0}\",\"('La', 'Se')\",OTHERS,False\nmp-645158,\"{'La': 4.0, 'Mn': 4.0, 'O': 12.0}\",\"('La', 'Mn', 'O')\",OTHERS,False\nmvc-5781,\"{'Zn': 4.0, 'Ir': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Ir', 'O', 'W', 'Zn')\",OTHERS,False\nmp-974417,\"{'Re': 3.0, 'Sb': 1.0}\",\"('Re', 'Sb')\",OTHERS,False\nmp-12651,\"{'Mg': 4.0, 'Pt': 4.0}\",\"('Mg', 'Pt')\",OTHERS,False\nmp-1038767,\"{'Mg': 4.0, 'Cd': 4.0}\",\"('Cd', 'Mg')\",OTHERS,False\nmp-1179617,\"{'W': 17.0, 'O': 47.0}\",\"('O', 'W')\",OTHERS,False\nmvc-10584,\"{'Ca': 2.0, 'V': 6.0, 'P': 6.0, 'O': 26.0}\",\"('Ca', 'O', 'P', 'V')\",OTHERS,False\nmvc-9655,\"{'Pr': 2.0, 'W': 4.0, 'O': 12.0}\",\"('O', 'Pr', 'W')\",OTHERS,False\nmp-635469,\"{'Ce': 2.0, 'Cu': 2.0, 'S': 2.0, 'O': 2.0}\",\"('Ce', 'Cu', 'O', 'S')\",OTHERS,False\nmp-770815,\"{'Cs': 12.0, 'Y': 4.0, 'O': 12.0}\",\"('Cs', 'O', 'Y')\",OTHERS,False\nmp-752655,\"{'Li': 4.0, 'Nb': 2.0, 'Fe': 3.0, 'Ni': 3.0, 'O': 16.0}\",\"('Fe', 'Li', 'Nb', 'Ni', 'O')\",OTHERS,False\nmp-1225750,\"{'Er': 2.0, 'Si': 3.0}\",\"('Er', 'Si')\",OTHERS,False\nmp-669435,\"{'K': 4.0, 'La': 4.0, 'C': 4.0, 'O': 16.0}\",\"('C', 'K', 'La', 'O')\",OTHERS,False\nmp-555835,\"{'Gd': 12.0, 'Sc': 8.0, 'Ga': 12.0, 'O': 48.0}\",\"('Ga', 'Gd', 'O', 'Sc')\",OTHERS,False\nmp-1077593,\"{'Sm': 2.0, 'Sn': 4.0}\",\"('Sm', 'Sn')\",OTHERS,False\nmp-849295,\"{'Fe': 2.0, 'B': 2.0, 'O': 6.0}\",\"('B', 'Fe', 'O')\",OTHERS,False\nmp-6331,\"{'B': 8.0, 'O': 28.0, 'Na': 8.0, 'Y': 8.0}\",\"('B', 'Na', 'O', 'Y')\",OTHERS,False\nmp-1185369,\"{'Li': 1.0, 'Lu': 1.0, 'In': 2.0}\",\"('In', 'Li', 'Lu')\",OTHERS,False\nmp-1213040,\"{'Er': 1.0, 'Mn': 4.0, 'Cu': 3.0, 'O': 12.0}\",\"('Cu', 'Er', 'Mn', 'O')\",OTHERS,False\nmp-555273,\"{'Ca': 12.0, 'Ge': 4.0, 'Cl': 8.0, 'O': 16.0}\",\"('Ca', 'Cl', 'Ge', 'O')\",OTHERS,False\nmp-1201508,\"{'K': 16.0, 'Si': 16.0}\",\"('K', 'Si')\",OTHERS,False\nmp-684969,\"{'Sc': 4.0, 'S': 6.0}\",\"('S', 'Sc')\",OTHERS,False\nmp-758790,\"{'Li': 4.0, 'Fe': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1208093,\"{'V': 2.0, 'Cu': 3.0, 'O': 11.0}\",\"('Cu', 'O', 'V')\",OTHERS,False\nmp-540482,\"{'Li': 2.0, 'Cr': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-684606,\"{'Cu': 27.0, 'Se': 20.0}\",\"('Cu', 'Se')\",OTHERS,False\nmp-773139,\"{'Li': 4.0, 'V': 3.0, 'Sb': 5.0, 'O': 16.0}\",\"('Li', 'O', 'Sb', 'V')\",OTHERS,False\nmp-1006330,\"{'Ce': 3.0, 'Cu': 1.0}\",\"('Ce', 'Cu')\",OTHERS,False\nmp-626644,\"{'Ca': 1.0, 'H': 2.0, 'O': 2.0}\",\"('Ca', 'H', 'O')\",OTHERS,False\nmp-1094383,\"{'Mg': 4.0, 'Ti': 4.0}\",\"('Mg', 'Ti')\",OTHERS,False\nmp-1074645,\"{'Mg': 8.0, 'Si': 4.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1193092,\"{'Er': 2.0, 'Be': 26.0}\",\"('Be', 'Er')\",OTHERS,False\nmp-977534,\"{'Zr': 1.0, 'Nb': 1.0, 'Tc': 2.0}\",\"('Nb', 'Tc', 'Zr')\",OTHERS,False\nmp-1192121,\"{'Tb': 4.0, 'Re': 4.0, 'B': 16.0}\",\"('B', 'Re', 'Tb')\",OTHERS,False\nmp-977012,\"{'H': 6.0, 'Pb': 1.0, 'C': 1.0, 'Br': 3.0, 'N': 1.0}\",\"('Br', 'C', 'H', 'N', 'Pb')\",OTHERS,False\nmp-542314,\"{'Nd': 2.0, 'Cu': 2.0, 'S': 2.0, 'O': 2.0}\",\"('Cu', 'Nd', 'O', 'S')\",OTHERS,False\nmp-1174327,\"{'Li': 8.0, 'Co': 6.0, 'O': 14.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1100768,\"{'Tb': 1.0, 'Cd': 1.0, 'Hg': 2.0}\",\"('Cd', 'Hg', 'Tb')\",OTHERS,False\nmp-1018737,\"{'K': 2.0, 'Mg': 2.0, 'P': 2.0}\",\"('K', 'Mg', 'P')\",OTHERS,False\nmp-1222593,\"{'Lu': 3.0, 'Mn': 1.0, 'Fe': 3.0, 'O': 10.0}\",\"('Fe', 'Lu', 'Mn', 'O')\",OTHERS,False\nmp-1247078,\"{'Mg': 2.0, 'Ga': 1.0, 'W': 3.0, 'S': 8.0}\",\"('Ga', 'Mg', 'S', 'W')\",OTHERS,False\nmp-1183230,\"{'Ac': 1.0, 'Sm': 3.0}\",\"('Ac', 'Sm')\",OTHERS,False\nmp-1193901,\"{'Ho': 4.0, 'Mo': 4.0, 'Br': 4.0, 'O': 16.0}\",\"('Br', 'Ho', 'Mo', 'O')\",OTHERS,False\nmp-753231,\"{'Li': 2.0, 'V': 4.0, 'O': 3.0, 'F': 8.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-20106,\"{'Li': 4.0, 'Sb': 4.0, 'Nd': 2.0}\",\"('Li', 'Nd', 'Sb')\",OTHERS,False\nmp-977550,\"{'Zr': 1.0, 'Sc': 1.0, 'Os': 2.0}\",\"('Os', 'Sc', 'Zr')\",OTHERS,False\nmp-29665,\"{'Sb': 3.0, 'Au': 1.0}\",\"('Au', 'Sb')\",OTHERS,False\nmp-1219165,\"{'Sm': 4.0, 'Fe': 3.0, 'Co': 1.0, 'As': 4.0, 'O': 4.0}\",\"('As', 'Co', 'Fe', 'O', 'Sm')\",OTHERS,False\nmp-639160,\"{'Gd': 4.0, 'In': 2.0, 'Ge': 4.0}\",\"('Gd', 'Ge', 'In')\",OTHERS,False\nmp-1186935,\"{'Sc': 2.0, 'Cd': 1.0, 'Os': 1.0}\",\"('Cd', 'Os', 'Sc')\",OTHERS,False\nmp-1246245,\"{'Ba': 8.0, 'Fe': 3.0, 'N': 8.0}\",\"('Ba', 'Fe', 'N')\",OTHERS,False\nmp-1193953,\"{'U': 4.0, 'N': 4.0, 'F': 20.0}\",\"('F', 'N', 'U')\",OTHERS,False\nmp-22339,\"{'Co': 3.0, 'Sn': 3.0, 'Th': 3.0}\",\"('Co', 'Sn', 'Th')\",OTHERS,False\nmp-1096227,\"{'Ca': 1.0, 'Cd': 2.0, 'In': 1.0}\",\"('Ca', 'Cd', 'In')\",OTHERS,False\nmp-1215860,\"{'Yb': 1.0, 'Lu': 2.0, 'Se': 4.0}\",\"('Lu', 'Se', 'Yb')\",OTHERS,False\nmp-1213479,\"{'Dy': 4.0, 'Cu': 2.0, 'W': 8.0, 'O': 32.0}\",\"('Cu', 'Dy', 'O', 'W')\",OTHERS,False\nmp-17623,\"{'Si': 4.0, 'Co': 18.0, 'Sm': 2.0}\",\"('Co', 'Si', 'Sm')\",OTHERS,False\nmp-1218040,\"{'Sr': 2.0, 'Nd': 2.0, 'Sc': 2.0, 'O': 8.0}\",\"('Nd', 'O', 'Sc', 'Sr')\",OTHERS,False\nmp-1225871,\"{'Cu': 8.0, 'Ge': 4.0, 'S': 12.0}\",\"('Cu', 'Ge', 'S')\",OTHERS,False\nmp-758355,\"{'Li': 8.0, 'V': 8.0, 'P': 8.0, 'O': 40.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmvc-3621,\"{'Mn': 4.0, 'Zn': 6.0, 'O': 14.0}\",\"('Mn', 'O', 'Zn')\",OTHERS,False\nmp-541582,\"{'Re': 4.0, 'Se': 8.0}\",\"('Re', 'Se')\",OTHERS,False\nmp-1188815,\"{'U': 4.0, 'Co': 2.0, 'S': 10.0}\",\"('Co', 'S', 'U')\",OTHERS,False\nmp-1176443,\"{'Mn': 4.0, 'Fe': 4.0, 'B': 4.0, 'O': 16.0}\",\"('B', 'Fe', 'Mn', 'O')\",OTHERS,False\nmp-570596,\"{'Nd': 4.0, 'Ni': 34.0}\",\"('Nd', 'Ni')\",OTHERS,False\nmp-1220390,\"{'Nb': 1.0, 'Au': 4.0}\",\"('Au', 'Nb')\",OTHERS,False\nmp-560570,\"{'Rb': 2.0, 'Na': 1.0, 'Al': 6.0, 'F': 21.0}\",\"('Al', 'F', 'Na', 'Rb')\",OTHERS,False\nmp-17891,\"{'O': 16.0, 'Na': 4.0, 'Si': 4.0, 'Y': 4.0}\",\"('Na', 'O', 'Si', 'Y')\",OTHERS,False\nmp-1226322,\"{'Cr': 4.0, 'In': 1.0, 'Ag': 1.0, 'Se': 8.0}\",\"('Ag', 'Cr', 'In', 'Se')\",OTHERS,False\nmp-1255465,\"{'Zn': 2.0, 'Cu': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Cu', 'O', 'Si', 'Zn')\",OTHERS,False\nmp-978101,\"{'Pr': 2.0, 'Fe': 2.0, 'Ge': 4.0}\",\"('Fe', 'Ge', 'Pr')\",OTHERS,False\nmp-14206,\"{'K': 3.0, 'As': 2.0, 'Ag': 3.0}\",\"('Ag', 'As', 'K')\",OTHERS,False\nmp-22747,\"{'C': 4.0, 'O': 8.0, 'Pb': 2.0}\",\"('C', 'O', 'Pb')\",OTHERS,False\nmp-532178,\"{'O': 48.0, 'Yb': 16.0, 'Zr': 12.0}\",\"('O', 'Yb', 'Zr')\",OTHERS,False\nmp-560189,\"{'Na': 8.0, 'Li': 16.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Na', 'O')\",OTHERS,False\nmp-622930,\"{'Ba': 8.0, 'In': 12.0, 'O': 26.0}\",\"('Ba', 'In', 'O')\",OTHERS,False\nmp-1221141,\"{'Na': 5.0, 'Br': 4.0, 'Cl': 1.0}\",\"('Br', 'Cl', 'Na')\",OTHERS,False\nmp-1210580,\"{'Na': 2.0, 'Lu': 2.0, 'Re': 8.0, 'O': 40.0}\",\"('Lu', 'Na', 'O', 'Re')\",OTHERS,False\nmp-672315,\"{'P': 6.0, 'C': 12.0, 'S': 12.0, 'N': 18.0}\",\"('C', 'N', 'P', 'S')\",OTHERS,False\nmp-22136,\"{'O': 12.0, 'Co': 4.0, 'Ge': 4.0}\",\"('Co', 'Ge', 'O')\",OTHERS,False\nmp-30696,\"{'Cu': 8.0, 'Cd': 20.0}\",\"('Cd', 'Cu')\",OTHERS,False\nmp-1253602,\"{'Ba': 6.0, 'Al': 3.0, 'W': 6.0, 'F': 33.0}\",\"('Al', 'Ba', 'F', 'W')\",OTHERS,False\nmp-11558,\"{'Sc': 5.0, 'Re': 24.0}\",\"('Re', 'Sc')\",OTHERS,False\nmp-22652,\"{'Fe': 12.0, 'S': 12.0}\",\"('Fe', 'S')\",OTHERS,False\nmp-558911,\"{'Cs': 4.0, 'Co': 6.0, 'S': 8.0}\",\"('Co', 'Cs', 'S')\",OTHERS,False\nmp-759893,\"{'Mn': 12.0, 'O': 7.0, 'F': 17.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-558861,\"{'K': 4.0, 'I': 4.0, 'O': 8.0, 'F': 8.0}\",\"('F', 'I', 'K', 'O')\",OTHERS,False\nmp-1216890,\"{'Ti': 3.0, 'Ni': 3.0}\",\"('Ni', 'Ti')\",OTHERS,False\nmp-1199416,\"{'Eu': 8.0, 'Co': 4.0, 'Si': 12.0, 'O': 40.0}\",\"('Co', 'Eu', 'O', 'Si')\",OTHERS,False\nmvc-5860,\"{'Bi': 16.0, 'O': 32.0}\",\"('Bi', 'O')\",OTHERS,False\nmp-555559,\"{'Sm': 12.0, 'Nb': 4.0, 'Se': 12.0, 'O': 16.0}\",\"('Nb', 'O', 'Se', 'Sm')\",OTHERS,False\nmp-1174544,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-16488,\"{'Al': 18.0, 'Co': 4.0}\",\"('Al', 'Co')\",OTHERS,False\nmp-753298,\"{'Pr': 1.0, 'Y': 1.0, 'O': 2.0}\",\"('O', 'Pr', 'Y')\",OTHERS,False\nmp-1246650,\"{'Mn': 24.0, 'Se': 16.0, 'N': 16.0}\",\"('Mn', 'N', 'Se')\",OTHERS,False\nmp-1105794,\"{'Pu': 4.0, 'Si': 10.0, 'Pt': 6.0}\",\"('Pt', 'Pu', 'Si')\",OTHERS,False\nmp-849270,\"{'Ti': 34.0, 'N': 12.0, 'O': 48.0}\",\"('N', 'O', 'Ti')\",OTHERS,False\nmp-1187876,\"{'Y': 1.0, 'Rh': 2.0, 'Pb': 1.0}\",\"('Pb', 'Rh', 'Y')\",OTHERS,False\nmp-555282,\"{'Ga': 8.0, 'S': 20.0, 'N': 20.0, 'Cl': 28.0}\",\"('Cl', 'Ga', 'N', 'S')\",OTHERS,False\nmp-777339,\"{'Li': 2.0, 'V': 6.0, 'O': 2.0, 'F': 22.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-1114521,\"{'Rb': 2.0, 'Al': 1.0, 'In': 1.0, 'I': 6.0}\",\"('Al', 'I', 'In', 'Rb')\",OTHERS,False\nmp-1190610,\"{'Ho': 14.0, 'Te': 4.0, 'Au': 4.0}\",\"('Au', 'Ho', 'Te')\",OTHERS,False\nmp-569348,\"{'Tl': 8.0, 'Ga': 8.0, 'Br': 32.0}\",\"('Br', 'Ga', 'Tl')\",OTHERS,False\nmp-1028409,\"{'Mo': 3.0, 'W': 1.0, 'Se': 8.0}\",\"('Mo', 'Se', 'W')\",OTHERS,False\nmp-1264019,\"{'Mn': 8.0, 'Zn': 12.0, 'Si': 12.0, 'O': 48.0}\",\"('Mn', 'O', 'Si', 'Zn')\",OTHERS,False\nmp-1185613,\"{'Mg': 1.0, 'Tl': 1.0, 'O': 3.0}\",\"('Mg', 'O', 'Tl')\",OTHERS,False\nmp-1245870,\"{'Sc': 6.0, 'Si': 12.0, 'N': 22.0}\",\"('N', 'Sc', 'Si')\",OTHERS,False\nmp-1194659,\"{'Cs': 4.0, 'Nb': 4.0, 'V': 8.0, 'O': 32.0}\",\"('Cs', 'Nb', 'O', 'V')\",OTHERS,False\nmp-1206701,\"{'Sr': 2.0, 'Yb': 1.0, 'U': 1.0, 'O': 6.0}\",\"('O', 'Sr', 'U', 'Yb')\",OTHERS,False\nmp-567379,{'Bi': 4.0},\"('Bi',)\",OTHERS,False\nmp-1039255,\"{'Mg': 8.0, 'Cd': 4.0}\",\"('Cd', 'Mg')\",OTHERS,False\nmp-21083,\"{'O': 20.0, 'Co': 4.0, 'Ba': 4.0, 'Yb': 8.0}\",\"('Ba', 'Co', 'O', 'Yb')\",OTHERS,False\nmp-975395,\"{'Nd': 1.0, 'Mg': 16.0, 'Al': 12.0}\",\"('Al', 'Mg', 'Nd')\",OTHERS,False\nmp-6113,\"{'Li': 4.0, 'O': 20.0, 'Ti': 4.0, 'As': 4.0}\",\"('As', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-1216536,\"{'Tm': 1.0, 'Pa': 1.0, 'O': 4.0}\",\"('O', 'Pa', 'Tm')\",OTHERS,False\nmp-549389,\"{'Li': 4.0, 'O': 4.0, 'C': 1.0}\",\"('C', 'Li', 'O')\",OTHERS,False\nmp-1093564,\"{'Li': 1.0, 'Mg': 1.0, 'Ga': 2.0}\",\"('Ga', 'Li', 'Mg')\",OTHERS,False\nmp-557653,\"{'Si': 4.0, 'O': 8.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1078874,\"{'Ba': 2.0, 'Ce': 1.0, 'Ta': 1.0, 'O': 6.0}\",\"('Ba', 'Ce', 'O', 'Ta')\",OTHERS,False\nmp-1194887,\"{'Ca': 32.0, 'As': 24.0}\",\"('As', 'Ca')\",OTHERS,False\nmp-1849,\"{'P': 3.0, 'Mn': 6.0}\",\"('Mn', 'P')\",OTHERS,False\nmp-1216722,\"{'Ti': 1.0, 'Mo': 1.0, 'O': 4.0}\",\"('Mo', 'O', 'Ti')\",OTHERS,False\nmp-998308,\"{'Cs': 1.0, 'Sc': 1.0, 'Br': 3.0}\",\"('Br', 'Cs', 'Sc')\",OTHERS,False\nmp-756463,\"{'Mn': 3.0, 'Sb': 1.0, 'P': 4.0, 'O': 16.0}\",\"('Mn', 'O', 'P', 'Sb')\",OTHERS,False\nmp-849268,\"{'Ni': 6.0, 'O': 2.0, 'F': 10.0}\",\"('F', 'Ni', 'O')\",OTHERS,False\nmp-975190,\"{'Rb': 1.0, 'Te': 1.0, 'O': 3.0}\",\"('O', 'Rb', 'Te')\",OTHERS,False\nmp-7219,\"{'Na': 4.0, 'Se': 6.0, 'Zr': 2.0}\",\"('Na', 'Se', 'Zr')\",OTHERS,False\nmp-1246886,\"{'Ta': 2.0, 'C': 12.0, 'N': 18.0}\",\"('C', 'N', 'Ta')\",OTHERS,False\nmp-1213497,\"{'Gd': 4.0, 'Ga': 18.0, 'Ir': 6.0}\",\"('Ga', 'Gd', 'Ir')\",OTHERS,False\nmp-1216457,\"{'V': 6.0, 'Co': 1.0, 'Rh': 1.0}\",\"('Co', 'Rh', 'V')\",OTHERS,False\nmp-757767,\"{'Li': 32.0, 'Mn': 8.0, 'P': 16.0, 'O': 72.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1227151,\"{'Ca': 2.0, 'Sm': 2.0, 'Mn': 4.0, 'O': 12.0}\",\"('Ca', 'Mn', 'O', 'Sm')\",OTHERS,False\nmp-1080041,\"{'Cs': 2.0, 'Na': 1.0, 'Bi': 1.0, 'Cl': 6.0}\",\"('Bi', 'Cl', 'Cs', 'Na')\",OTHERS,False\nmp-1197020,{'Ge': 34.0},\"('Ge',)\",OTHERS,False\nmp-738654,\"{'U': 4.0, 'H': 64.0, 'C': 16.0, 'N': 16.0, 'O': 48.0}\",\"('C', 'H', 'N', 'O', 'U')\",OTHERS,False\nmp-752507,\"{'Li': 4.0, 'Cu': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-441,\"{'Rb': 2.0, 'Te': 1.0}\",\"('Rb', 'Te')\",OTHERS,False\nmp-1181880,\"{'Fe': 6.0, 'S': 6.0, 'O': 60.0}\",\"('Fe', 'O', 'S')\",OTHERS,False\nmp-676060,\"{'Gd': 4.0, 'Cu': 2.0, 'O': 8.0}\",\"('Cu', 'Gd', 'O')\",OTHERS,False\nmp-1217020,\"{'Ti': 1.0, 'Al': 1.0, 'Fe': 2.0}\",\"('Al', 'Fe', 'Ti')\",OTHERS,False\nmp-757486,\"{'Li': 9.0, 'Cr': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1245936,\"{'Ba': 28.0, 'Zr': 4.0, 'N': 24.0}\",\"('Ba', 'N', 'Zr')\",OTHERS,False\nmp-22579,\"{'O': 16.0, 'Mn': 4.0, 'Se': 4.0}\",\"('Mn', 'O', 'Se')\",OTHERS,False\nmp-758978,\"{'Li': 3.0, 'Ni': 4.0, 'O': 8.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmp-631335,\"{'Mg': 1.0, 'Ta': 1.0, 'Zn': 1.0}\",\"('Mg', 'Ta', 'Zn')\",OTHERS,False\nmp-776457,\"{'Li': 1.0, 'V': 4.0, 'O': 1.0, 'F': 11.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-976147,\"{'Pr': 1.0, 'Er': 3.0}\",\"('Er', 'Pr')\",OTHERS,False\nmp-392,\"{'Sb': 8.0, 'U': 6.0}\",\"('Sb', 'U')\",OTHERS,False\nmp-975652,\"{'Pr': 2.0, 'Te': 4.0}\",\"('Pr', 'Te')\",OTHERS,False\nmp-1058581,{'Ba': 2.0},\"('Ba',)\",OTHERS,False\nmp-640073,\"{'Fe': 2.0, 'Cu': 2.0, 'S': 4.0}\",\"('Cu', 'Fe', 'S')\",OTHERS,False\nmp-1226362,\"{'Cu': 6.0, 'Te': 2.0, 'Mo': 2.0, 'H': 2.0, 'Cl': 4.0, 'O': 15.0}\",\"('Cl', 'Cu', 'H', 'Mo', 'O', 'Te')\",OTHERS,False\nmp-757153,\"{'Li': 1.0, 'Fe': 5.0, 'O': 8.0}\",\"('Fe', 'Li', 'O')\",OTHERS,False\nmp-28810,\"{'C': 2.0, 'Na': 4.0, 'S': 6.0}\",\"('C', 'Na', 'S')\",OTHERS,False\nmp-1174704,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1178410,\"{'Cu': 4.0, 'Ni': 2.0, 'O': 8.0}\",\"('Cu', 'Ni', 'O')\",OTHERS,False\nmp-1012103,\"{'V': 16.0, 'Ni': 8.0, 'O': 48.0}\",\"('Ni', 'O', 'V')\",OTHERS,False\nmp-1226313,\"{'Cr': 1.0, 'Mo': 1.0, 'O': 3.0}\",\"('Cr', 'Mo', 'O')\",OTHERS,False\nmp-1195013,\"{'Na': 4.0, 'Pd': 2.0, 'S': 16.0, 'O': 52.0}\",\"('Na', 'O', 'Pd', 'S')\",OTHERS,False\nmp-1181862,\"{'Cd': 2.0, 'S': 2.0}\",\"('Cd', 'S')\",OTHERS,False\nmp-640345,\"{'Cs': 2.0, 'Mn': 1.0, 'Fe': 1.0, 'C': 6.0, 'N': 6.0}\",\"('C', 'Cs', 'Fe', 'Mn', 'N')\",OTHERS,False\nmp-1187675,\"{'Yb': 1.0, 'Ho': 3.0}\",\"('Ho', 'Yb')\",OTHERS,False\nmp-19292,\"{'O': 6.0, 'Co': 1.0, 'As': 2.0}\",\"('As', 'Co', 'O')\",OTHERS,False\nmp-1105218,\"{'Na': 4.0, 'Os': 4.0, 'O': 12.0}\",\"('Na', 'O', 'Os')\",OTHERS,False\nmp-1245863,\"{'Mg': 1.0, 'Fe': 10.0, 'N': 8.0}\",\"('Fe', 'Mg', 'N')\",OTHERS,False\nmp-776506,\"{'Li': 6.0, 'Mn': 3.0, 'V': 3.0, 'P': 6.0, 'H': 6.0, 'O': 30.0}\",\"('H', 'Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1180521,\"{'Na': 16.0, 'W': 8.0, 'O': 48.0}\",\"('Na', 'O', 'W')\",OTHERS,False\nmp-768613,\"{'Zr': 1.0, 'Mn': 6.0, 'Sn': 6.0}\",\"('Mn', 'Sn', 'Zr')\",OTHERS,False\nmp-1197056,\"{'Sm': 8.0, 'Ga': 16.0, 'Se': 32.0}\",\"('Ga', 'Se', 'Sm')\",OTHERS,False\nmp-1217973,\"{'Sr': 1.0, 'Pr': 1.0, 'V': 1.0, 'O': 4.0}\",\"('O', 'Pr', 'Sr', 'V')\",OTHERS,False\nmp-625367,\"{'Lu': 2.0, 'H': 2.0, 'O': 4.0}\",\"('H', 'Lu', 'O')\",OTHERS,False\nmp-1191988,\"{'Y': 4.0, 'Mn': 4.0, 'B': 16.0}\",\"('B', 'Mn', 'Y')\",OTHERS,False\nmp-648788,\"{'Te': 14.0, 'Os': 2.0, 'O': 10.0, 'F': 64.0}\",\"('F', 'O', 'Os', 'Te')\",OTHERS,False\nmp-1018779,\"{'Li': 3.0, 'Pr': 1.0, 'Sb': 2.0}\",\"('Li', 'Pr', 'Sb')\",OTHERS,False\nmp-10846,\"{'Ni': 4.0, 'As': 4.0, 'Se': 4.0}\",\"('As', 'Ni', 'Se')\",OTHERS,False\nmp-753323,\"{'Li': 4.0, 'Mn': 2.0, 'O': 1.0, 'F': 7.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1206244,\"{'Lu': 2.0, 'O': 4.0}\",\"('Lu', 'O')\",OTHERS,False\nmp-1104583,\"{'Pt': 1.0, 'S': 2.0, 'N': 4.0, 'O': 8.0}\",\"('N', 'O', 'Pt', 'S')\",OTHERS,False\nmp-1827,\"{'Ga': 4.0, 'Sr': 1.0}\",\"('Ga', 'Sr')\",OTHERS,False\nmp-1178188,\"{'Ho': 10.0, 'Ti': 10.0, 'O': 34.0}\",\"('Ho', 'O', 'Ti')\",OTHERS,False\nmp-1101948,\"{'Nb': 4.0, 'P': 4.0, 'Rh': 4.0}\",\"('Nb', 'P', 'Rh')\",OTHERS,False\nmp-1188137,\"{'Cd': 4.0, 'Hg': 4.0, 'S': 4.0, 'Br': 4.0}\",\"('Br', 'Cd', 'Hg', 'S')\",OTHERS,False\nmp-998928,\"{'Tl': 1.0, 'Cd': 1.0, 'S': 2.0}\",\"('Cd', 'S', 'Tl')\",OTHERS,False\nmp-761797,\"{'Li': 6.0, 'Mn': 15.0, 'O': 32.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1058171,\"{'Na': 1.0, 'S': 1.0}\",\"('Na', 'S')\",OTHERS,False\nmp-1220172,\"{'Nd': 1.0, 'Al': 2.0, 'Pt': 3.0}\",\"('Al', 'Nd', 'Pt')\",OTHERS,False\nmp-1072645,\"{'Si': 4.0, 'Os': 2.0}\",\"('Os', 'Si')\",OTHERS,False\nmp-20313,\"{'O': 16.0, 'Si': 4.0, 'Fe': 8.0}\",\"('Fe', 'O', 'Si')\",OTHERS,False\nmp-1226506,\"{'Ce': 1.0, 'Th': 2.0, 'O': 6.0}\",\"('Ce', 'O', 'Th')\",OTHERS,False\nmp-997002,\"{'K': 2.0, 'Au': 2.0, 'O': 4.0}\",\"('Au', 'K', 'O')\",OTHERS,False\nmp-756149,\"{'Li': 3.0, 'Nb': 4.0, 'Fe': 1.0, 'O': 12.0}\",\"('Fe', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-1186176,\"{'Na': 1.0, 'Sn': 3.0}\",\"('Na', 'Sn')\",OTHERS,False\nmp-675293,\"{'Yb': 2.0, 'Y': 4.0, 'S': 8.0}\",\"('S', 'Y', 'Yb')\",OTHERS,False\nmp-8308,\"{'B': 2.0, 'Ca': 3.0, 'Ni': 7.0}\",\"('B', 'Ca', 'Ni')\",OTHERS,False\nmp-530985,\"{'La': 20.0, 'Mn': 18.0, 'O': 60.0}\",\"('La', 'Mn', 'O')\",OTHERS,False\nmp-11436,\"{'Er': 1.0, 'V': 2.0, 'Ga': 4.0}\",\"('Er', 'Ga', 'V')\",OTHERS,False\nmp-1185050,\"{'La': 2.0, 'Tl': 1.0, 'Ag': 1.0}\",\"('Ag', 'La', 'Tl')\",OTHERS,False\nmp-1225980,\"{'Cu': 19.0, 'Sn': 16.0}\",\"('Cu', 'Sn')\",OTHERS,False\nmp-557407,\"{'K': 6.0, 'Na': 2.0, 'U': 2.0, 'C': 6.0, 'O': 22.0}\",\"('C', 'K', 'Na', 'O', 'U')\",OTHERS,False\nmp-768091,\"{'Li': 8.0, 'Ni': 14.0, 'O': 22.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmvc-10602,\"{'Cr': 6.0, 'P': 6.0, 'O': 26.0}\",\"('Cr', 'O', 'P')\",OTHERS,False\nmp-570451,\"{'Nb': 4.0, 'Te': 6.0}\",\"('Nb', 'Te')\",OTHERS,False\nmp-756258,\"{'Li': 3.0, 'Co': 4.0, 'Cu': 1.0, 'O': 8.0}\",\"('Co', 'Cu', 'Li', 'O')\",OTHERS,False\nmp-541695,\"{'W': 4.0, 'C': 24.0, 'O': 24.0}\",\"('C', 'O', 'W')\",OTHERS,False\nmp-1197831,\"{'Li': 8.0, 'Br': 8.0, 'O': 24.0}\",\"('Br', 'Li', 'O')\",OTHERS,False\nmp-1037722,\"{'Hf': 1.0, 'Mg': 30.0, 'Al': 1.0, 'O': 32.0}\",\"('Al', 'Hf', 'Mg', 'O')\",OTHERS,False\nmp-1199697,\"{'Ce': 12.0, 'Al': 24.0, 'Pt': 16.0}\",\"('Al', 'Ce', 'Pt')\",OTHERS,False\nmp-776417,\"{'Li': 1.0, 'V': 6.0, 'O': 7.0, 'F': 5.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-540632,\"{'Rb': 2.0, 'Ta': 2.0, 'Ge': 6.0, 'O': 18.0}\",\"('Ge', 'O', 'Rb', 'Ta')\",OTHERS,False\nmp-1114397,\"{'Rb': 2.0, 'Y': 1.0, 'In': 1.0, 'F': 6.0}\",\"('F', 'In', 'Rb', 'Y')\",OTHERS,False\nmp-973283,\"{'Ho': 1.0, 'Lu': 1.0, 'Ag': 2.0}\",\"('Ag', 'Ho', 'Lu')\",OTHERS,False\nmp-26407,\"{'Li': 8.0, 'O': 28.0, 'P': 8.0, 'Sn': 4.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-676762,\"{'Yb': 2.0, 'Ce': 4.0, 'S': 8.0}\",\"('Ce', 'S', 'Yb')\",OTHERS,False\nmp-1212695,\"{'Ga': 2.0, 'Hg': 5.0, 'Se': 8.0}\",\"('Ga', 'Hg', 'Se')\",OTHERS,False\nmp-582540,\"{'Eu': 4.0, 'Mo': 4.0, 'O': 16.0, 'F': 4.0}\",\"('Eu', 'F', 'Mo', 'O')\",OTHERS,False\nmp-1227974,\"{'Ba': 1.0, 'Bi': 2.0, 'Br': 2.0, 'O': 2.0}\",\"('Ba', 'Bi', 'Br', 'O')\",OTHERS,False\nmp-1215344,\"{'Zr': 8.0, 'Ag': 1.0, 'Pd': 3.0}\",\"('Ag', 'Pd', 'Zr')\",OTHERS,False\nmp-542292,\"{'Ag': 2.0, 'Mn': 6.0, 'As': 6.0, 'O': 24.0, 'H': 4.0}\",\"('Ag', 'As', 'H', 'Mn', 'O')\",OTHERS,False\nmp-770653,\"{'Sr': 12.0, 'W': 8.0, 'O': 36.0}\",\"('O', 'Sr', 'W')\",OTHERS,False\nmp-1239256,\"{'Zr': 4.0, 'Cr': 4.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cr', 'Cu', 'S', 'Zr')\",OTHERS,False\nmp-775905,\"{'Li': 8.0, 'Mn': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-572621,\"{'Ni': 4.0, 'P': 4.0, 'C': 12.0, 'O': 18.0}\",\"('C', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1209523,\"{'Rb': 6.0, 'Sc': 4.0, 'Br': 18.0}\",\"('Br', 'Rb', 'Sc')\",OTHERS,False\nmp-27941,\"{'O': 12.0, 'Cl': 4.0, 'Ag': 4.0}\",\"('Ag', 'Cl', 'O')\",OTHERS,False\nmp-556282,\"{'Ba': 8.0, 'Al': 4.0, 'In': 4.0, 'O': 20.0}\",\"('Al', 'Ba', 'In', 'O')\",OTHERS,False\nmp-559809,\"{'Rb': 8.0, 'Fe': 4.0, 'O': 10.0}\",\"('Fe', 'O', 'Rb')\",OTHERS,False\nmp-779351,\"{'Li': 4.0, 'Mn': 1.0, 'P': 6.0, 'H': 8.0, 'O': 22.0}\",\"('H', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-755421,\"{'Ca': 6.0, 'Hf': 1.0, 'O': 8.0}\",\"('Ca', 'Hf', 'O')\",OTHERS,False\nmp-1213505,\"{'Er': 8.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Er', 'O')\",OTHERS,False\nmp-1197097,\"{'K': 8.0, 'P': 8.0, 'H': 24.0, 'O': 32.0}\",\"('H', 'K', 'O', 'P')\",OTHERS,False\nmp-1223001,\"{'La': 4.0, 'Th': 4.0, 'U': 4.0, 'S': 20.0}\",\"('La', 'S', 'Th', 'U')\",OTHERS,False\nmp-1226829,\"{'Cd': 4.0, 'In': 1.0, 'Te': 4.0, 'As': 1.0}\",\"('As', 'Cd', 'In', 'Te')\",OTHERS,False\nmvc-11797,\"{'Ca': 2.0, 'Cu': 4.0, 'O': 8.0}\",\"('Ca', 'Cu', 'O')\",OTHERS,False\nmvc-1659,\"{'Zn': 2.0, 'Sb': 4.0, 'O': 12.0}\",\"('O', 'Sb', 'Zn')\",OTHERS,False\nmp-1036104,\"{'Mg': 14.0, 'Mn': 1.0, 'Cr': 1.0, 'O': 16.0}\",\"('Cr', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-1187900,\"{'Yb': 4.0, 'Mg': 2.0}\",\"('Mg', 'Yb')\",OTHERS,False\nmp-698096,\"{'La': 5.0, 'Fe': 1.0, 'Re': 3.0, 'O': 16.0}\",\"('Fe', 'La', 'O', 'Re')\",OTHERS,False\nmp-1246482,\"{'Mg': 2.0, 'Ni': 2.0, 'W': 2.0, 'S': 8.0}\",\"('Mg', 'Ni', 'S', 'W')\",OTHERS,False\nmp-1191803,\"{'Ag': 10.0, 'Te': 2.0, 'P': 2.0, 'O': 8.0}\",\"('Ag', 'O', 'P', 'Te')\",OTHERS,False\nmp-683867,\"{'Tb': 16.0, 'B': 48.0, 'O': 96.0}\",\"('B', 'O', 'Tb')\",OTHERS,False\nmp-1206680,\"{'Li': 2.0, 'Sn': 1.0, 'Pd': 1.0}\",\"('Li', 'Pd', 'Sn')\",OTHERS,False\nmp-2375,\"{'Pd': 3.0, 'Np': 1.0}\",\"('Np', 'Pd')\",OTHERS,False\nmp-1199954,\"{'Mn': 8.0, 'B': 16.0, 'O': 32.0}\",\"('B', 'Mn', 'O')\",OTHERS,False\nmp-1204230,\"{'Sr': 64.0, 'Ga': 32.0, 'O': 112.0}\",\"('Ga', 'O', 'Sr')\",OTHERS,False\nmp-778241,\"{'Li': 2.0, 'V': 3.0, 'F': 8.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1174542,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1205833,\"{'Ba': 2.0, 'Nb': 1.0, 'Rh': 1.0, 'O': 6.0}\",\"('Ba', 'Nb', 'O', 'Rh')\",OTHERS,False\nmp-1184670,\"{'Hf': 6.0, 'Al': 2.0}\",\"('Al', 'Hf')\",OTHERS,False\nmp-19719,\"{'Mn': 2.0, 'Se': 8.0, 'Yb': 4.0}\",\"('Mn', 'Se', 'Yb')\",OTHERS,False\nmvc-2232,\"{'Ba': 4.0, 'Mg': 2.0, 'Fe': 4.0, 'Cu': 2.0, 'F': 28.0}\",\"('Ba', 'Cu', 'F', 'Fe', 'Mg')\",OTHERS,False\nmp-6027,\"{'O': 12.0, 'Cu': 2.0, 'Ba': 4.0, 'Tl': 4.0}\",\"('Ba', 'Cu', 'O', 'Tl')\",OTHERS,False\nmp-1204777,\"{'Zn': 4.0, 'H': 48.0, 'C': 24.0, 'S': 16.0, 'N': 8.0}\",\"('C', 'H', 'N', 'S', 'Zn')\",OTHERS,False\nmp-1221554,\"{'Mn': 2.0, 'Si': 4.0, 'Ni': 2.0}\",\"('Mn', 'Ni', 'Si')\",OTHERS,False\nmp-775748,\"{'Li': 4.0, 'Cr': 3.0, 'Fe': 2.0, 'Sn': 3.0, 'O': 16.0}\",\"('Cr', 'Fe', 'Li', 'O', 'Sn')\",OTHERS,False\nmp-1211634,\"{'K': 2.0, 'Pr': 2.0, 'Cl': 8.0, 'O': 8.0}\",\"('Cl', 'K', 'O', 'Pr')\",OTHERS,False\nmp-768490,\"{'Bi': 8.0, 'S': 12.0, 'O': 48.0}\",\"('Bi', 'O', 'S')\",OTHERS,False\nmp-1198194,\"{'Cs': 2.0, 'P': 4.0, 'H': 10.0, 'O': 16.0}\",\"('Cs', 'H', 'O', 'P')\",OTHERS,False\nmp-557324,\"{'Cs': 2.0, 'Cr': 1.0, 'F': 6.0}\",\"('Cr', 'Cs', 'F')\",OTHERS,False\nmp-1216744,\"{'U': 1.0, 'Al': 8.0, 'Cu': 4.0}\",\"('Al', 'Cu', 'U')\",OTHERS,False\nmp-764273,\"{'Na': 4.0, 'Li': 2.0, 'Mn': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Li', 'Mn', 'Na', 'O', 'P')\",OTHERS,False\nmp-8713,\"{'S': 4.0, 'K': 4.0, 'Mn': 2.0}\",\"('K', 'Mn', 'S')\",OTHERS,False\nmp-766800,\"{'Li': 6.0, 'Fe': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1095778,\"{'Sr': 1.0, 'Pb': 1.0, 'Au': 2.0}\",\"('Au', 'Pb', 'Sr')\",OTHERS,False\nmp-1106187,\"{'Er': 7.0, 'Fe': 1.0, 'I': 12.0}\",\"('Er', 'Fe', 'I')\",OTHERS,False\nmp-1188147,\"{'B': 16.0, 'Os': 4.0}\",\"('B', 'Os')\",OTHERS,False\nmp-1185744,\"{'Mg': 17.0, 'Al': 11.0, 'Rh': 1.0}\",\"('Al', 'Mg', 'Rh')\",OTHERS,False\nmp-757889,\"{'Li': 4.0, 'Sn': 4.0, 'P': 12.0, 'O': 36.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1216438,\"{'V': 2.0, 'Co': 6.0, 'As': 2.0, 'O': 16.0}\",\"('As', 'Co', 'O', 'V')\",OTHERS,False\nmp-1064529,\"{'Rb': 2.0, 'N': 2.0}\",\"('N', 'Rb')\",OTHERS,False\nmp-1222213,\"{'Mg': 4.0, 'Al': 4.0, 'Si': 2.0, 'O': 18.0}\",\"('Al', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1247324,\"{'Re': 8.0, 'Pb': 12.0, 'N': 16.0}\",\"('N', 'Pb', 'Re')\",OTHERS,False\nmp-1087238,\"{'Y': 2.0, 'Cu': 4.0, 'Sn': 4.0}\",\"('Cu', 'Sn', 'Y')\",OTHERS,False\nmp-1180425,\"{'Mg': 2.0, 'N': 2.0, 'Cl': 6.0, 'O': 12.0}\",\"('Cl', 'Mg', 'N', 'O')\",OTHERS,False\nmp-756689,\"{'La': 4.0, 'Sb': 2.0, 'O': 12.0}\",\"('La', 'O', 'Sb')\",OTHERS,False\nmp-31467,\"{'Ga': 3.0, 'Pd': 7.0}\",\"('Ga', 'Pd')\",OTHERS,False\nmp-22756,\"{'O': 6.0, 'K': 4.0, 'Pb': 2.0}\",\"('K', 'O', 'Pb')\",OTHERS,False\nmp-1094138,\"{'Na': 4.0, 'Co': 8.0, 'P': 8.0, 'O': 36.0}\",\"('Co', 'Na', 'O', 'P')\",OTHERS,False\nmp-675912,\"{'Yb': 4.0, 'Sm': 2.0, 'S': 8.0}\",\"('S', 'Sm', 'Yb')\",OTHERS,False\nmp-1206552,\"{'Ba': 2.0, 'Bi': 2.0, 'Br': 2.0, 'O': 4.0}\",\"('Ba', 'Bi', 'Br', 'O')\",OTHERS,False\nmp-1216581,\"{'V': 4.0, 'Fe': 2.0, 'Si': 2.0}\",\"('Fe', 'Si', 'V')\",OTHERS,False\nmp-772579,\"{'La': 8.0, 'W': 4.0, 'O': 24.0}\",\"('La', 'O', 'W')\",OTHERS,False\nmp-5284,\"{'Si': 2.0, 'Cr': 2.0, 'U': 1.0}\",\"('Cr', 'Si', 'U')\",OTHERS,False\nmp-1174579,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmvc-13134,\"{'Cr': 4.0, 'O': 12.0}\",\"('Cr', 'O')\",OTHERS,False\nmp-504957,\"{'Rb': 6.0, 'Re': 6.0, 'Cl': 24.0}\",\"('Cl', 'Rb', 'Re')\",OTHERS,False\nmp-995200,\"{'H': 2.0, 'C': 6.0}\",\"('C', 'H')\",OTHERS,False\nmp-755052,\"{'Li': 2.0, 'V': 4.0, 'O': 8.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-758539,\"{'Li': 2.0, 'Co': 3.0, 'O': 6.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-767672,\"{'Li': 4.0, 'V': 4.0, 'F': 20.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-9167,\"{'C': 4.0, 'N': 8.0, 'Sr': 4.0}\",\"('C', 'N', 'Sr')\",OTHERS,False\nmp-1221664,\"{'Mn': 1.0, 'Cd': 2.0, 'Te': 3.0}\",\"('Cd', 'Mn', 'Te')\",OTHERS,False\nmp-770170,\"{'Li': 6.0, 'V': 6.0, 'B': 4.0, 'O': 20.0}\",\"('B', 'Li', 'O', 'V')\",OTHERS,False\nmp-679630,\"{'Ba': 4.0, 'Be': 2.0, 'S': 2.0, 'O': 8.0, 'F': 8.0}\",\"('Ba', 'Be', 'F', 'O', 'S')\",OTHERS,False\nmp-758652,\"{'Zn': 2.0, 'Co': 2.0, 'O': 6.0}\",\"('Co', 'O', 'Zn')\",OTHERS,False\nmp-1096845,\"{'Ba': 2.0, 'Ag': 2.0, 'O': 4.0}\",\"('Ag', 'Ba', 'O')\",OTHERS,False\nmp-1223371,\"{'La': 2.0, 'Al': 3.0, 'Ga': 1.0, 'Pd': 4.0}\",\"('Al', 'Ga', 'La', 'Pd')\",OTHERS,False\nmp-1093586,\"{'Hf': 2.0, 'V': 1.0, 'Tc': 1.0}\",\"('Hf', 'Tc', 'V')\",OTHERS,False\nmp-1199260,\"{'B': 4.0, 'P': 8.0, 'Pb': 8.0, 'O': 36.0}\",\"('B', 'O', 'P', 'Pb')\",OTHERS,False\nmp-24234,\"{'H': 16.0, 'N': 4.0, 'O': 4.0, 'S': 4.0, 'Mo': 2.0}\",\"('H', 'Mo', 'N', 'O', 'S')\",OTHERS,False\nmp-1207223,\"{'Zr': 3.0, 'Zn': 3.0, 'Ge': 3.0}\",\"('Ge', 'Zn', 'Zr')\",OTHERS,False\nmp-29209,\"{'Mg': 2.0, 'Ba': 1.0, 'Bi': 2.0}\",\"('Ba', 'Bi', 'Mg')\",OTHERS,False\nmp-559781,\"{'K': 2.0, 'Y': 2.0, 'C': 16.0, 'O': 16.0}\",\"('C', 'K', 'O', 'Y')\",OTHERS,False\nmp-774906,\"{'Li': 8.0, 'Mn': 4.0, 'Ni': 12.0, 'O': 32.0}\",\"('Li', 'Mn', 'Ni', 'O')\",OTHERS,False\nmp-761277,\"{'Li': 4.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1209334,\"{'Rb': 2.0, 'Ho': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Ho', 'O', 'Rb', 'W')\",OTHERS,False\nmp-1229327,\"{'Ba': 8.0, 'Gd': 4.0, 'Cu': 12.0, 'O': 27.0}\",\"('Ba', 'Cu', 'Gd', 'O')\",OTHERS,False\nmp-1244565,\"{'Ca': 2.0, 'Sn': 4.0, 'O': 10.0}\",\"('Ca', 'O', 'Sn')\",OTHERS,False\nmp-780263,\"{'Ba': 24.0, 'Ge': 12.0, 'O': 48.0}\",\"('Ba', 'Ge', 'O')\",OTHERS,False\nmp-1095164,\"{'Gd': 2.0, 'B': 4.0, 'Ru': 4.0}\",\"('B', 'Gd', 'Ru')\",OTHERS,False\nmp-1096534,\"{'Y': 1.0, 'Zr': 1.0, 'Pd': 2.0}\",\"('Pd', 'Y', 'Zr')\",OTHERS,False\nmp-11301,\"{'Cd': 2.0, 'Ho': 1.0}\",\"('Cd', 'Ho')\",OTHERS,False\nmp-676083,\"{'Ce': 4.0, 'U': 2.0, 'Se': 8.0}\",\"('Ce', 'Se', 'U')\",OTHERS,False\nmp-26155,\"{'Li': 2.0, 'O': 24.0, 'P': 8.0, 'Mn': 2.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1223424,\"{'La': 4.0, 'Pr': 1.0, 'Co': 10.0, 'P': 10.0}\",\"('Co', 'La', 'P', 'Pr')\",OTHERS,False\nmp-1180326,\"{'Na': 6.0, 'Np': 2.0, 'O': 12.0}\",\"('Na', 'Np', 'O')\",OTHERS,False\nmp-31433,\"{'Ni': 2.0, 'Sn': 8.0, 'Lu': 2.0}\",\"('Lu', 'Ni', 'Sn')\",OTHERS,False\nmp-541991,\"{'Cu': 6.0, 'Mo': 6.0, 'O': 24.0}\",\"('Cu', 'Mo', 'O')\",OTHERS,False\nmp-5878,\"{'F': 3.0, 'K': 1.0, 'Zn': 1.0}\",\"('F', 'K', 'Zn')\",OTHERS,False\nmp-777593,\"{'Li': 32.0, 'Ti': 3.0, 'Cr': 13.0, 'O': 48.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-752793,\"{'Li': 8.0, 'Ag': 4.0, 'F': 12.0}\",\"('Ag', 'F', 'Li')\",OTHERS,False\nmp-989564,\"{'La': 1.0, 'Os': 1.0, 'N': 3.0}\",\"('La', 'N', 'Os')\",OTHERS,False\nmp-760468,\"{'Li': 2.0, 'Si': 4.0, 'Bi': 2.0, 'O': 12.0}\",\"('Bi', 'Li', 'O', 'Si')\",OTHERS,False\nmp-3035,\"{'Si': 2.0, 'Fe': 2.0, 'Ce': 1.0}\",\"('Ce', 'Fe', 'Si')\",OTHERS,False\nmp-36946,\"{'Tl': 2.0, 'Bi': 2.0, 'S': 4.0}\",\"('Bi', 'S', 'Tl')\",OTHERS,False\nmp-28592,\"{'Li': 7.0, 'O': 2.0, 'Br': 3.0}\",\"('Br', 'Li', 'O')\",OTHERS,False\nmp-1188906,\"{'Sm': 2.0, 'Ga': 2.0, 'Co': 15.0}\",\"('Co', 'Ga', 'Sm')\",OTHERS,False\nmp-10247,\"{'N': 3.0, 'Cr': 1.0, 'U': 2.0}\",\"('Cr', 'N', 'U')\",OTHERS,False\nmp-865902,\"{'Yb': 4.0, 'B': 16.0, 'Os': 4.0}\",\"('B', 'Os', 'Yb')\",OTHERS,False\nmp-1206794,\"{'Li': 1.0, 'Au': 1.0}\",\"('Au', 'Li')\",OTHERS,False\nmp-1037802,\"{'Ca': 1.0, 'Mg': 30.0, 'Mn': 1.0, 'O': 32.0}\",\"('Ca', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-570414,\"{'Tm': 8.0, 'Fe': 56.0, 'C': 4.0}\",\"('C', 'Fe', 'Tm')\",OTHERS,False\nmp-21792,\"{'O': 32.0, 'Na': 40.0, 'Co': 8.0}\",\"('Co', 'Na', 'O')\",OTHERS,False\nmvc-3232,\"{'Zn': 2.0, 'Si': 2.0, 'Ni': 2.0, 'O': 10.0}\",\"('Ni', 'O', 'Si', 'Zn')\",OTHERS,False\nmp-1078033,\"{'U': 1.0, 'Ga': 5.0, 'Rh': 1.0}\",\"('Ga', 'Rh', 'U')\",OTHERS,False\nmp-31337,\"{'Pd': 3.0, 'In': 1.0}\",\"('In', 'Pd')\",OTHERS,False\nmp-20132,\"{'In': 1.0, 'Hg': 1.0}\",\"('Hg', 'In')\",OTHERS,False\nmp-1097671,\"{'Ta': 1.0, 'Be': 1.0, 'Rh': 2.0}\",\"('Be', 'Rh', 'Ta')\",OTHERS,False\nmp-989405,\"{'Cs': 2.0, 'Li': 1.0, 'In': 1.0, 'Br': 6.0}\",\"('Br', 'Cs', 'In', 'Li')\",OTHERS,False\nmp-863669,\"{'Pm': 2.0, 'Cu': 1.0, 'Pt': 1.0}\",\"('Cu', 'Pm', 'Pt')\",OTHERS,False\nmp-26317,\"{'Li': 2.0, 'Cr': 2.0, 'P': 2.0, 'O': 8.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1096445,\"{'Cs': 1.0, 'Rb': 2.0, 'Bi': 1.0}\",\"('Bi', 'Cs', 'Rb')\",OTHERS,False\nmp-834,\"{'N': 1.0, 'Th': 1.0}\",\"('N', 'Th')\",OTHERS,False\nmp-560714,\"{'Ba': 4.0, 'V': 16.0, 'As': 16.0, 'O': 76.0}\",\"('As', 'Ba', 'O', 'V')\",OTHERS,False\nmp-601286,\"{'Tb': 4.0, 'Cu': 4.0, 'Pb': 4.0, 'Se': 12.0}\",\"('Cu', 'Pb', 'Se', 'Tb')\",OTHERS,False\nmp-1174046,\"{'Li': 6.0, 'Mn': 2.0, 'Co': 2.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-11247,\"{'Li': 3.0, 'Au': 1.0}\",\"('Au', 'Li')\",OTHERS,False\nmp-6504,\"{'C': 2.0, 'O': 6.0, 'Mg': 1.0, 'Ba': 1.0}\",\"('Ba', 'C', 'Mg', 'O')\",OTHERS,False\nmp-680690,\"{'La': 1.0, 'Cu': 3.0, 'Ru': 4.0, 'O': 12.0}\",\"('Cu', 'La', 'O', 'Ru')\",OTHERS,False\nmp-1189013,\"{'K': 2.0, 'Pt': 1.0, 'N': 4.0, 'O': 10.0}\",\"('K', 'N', 'O', 'Pt')\",OTHERS,False\nmp-779341,\"{'Li': 9.0, 'Mn': 12.0, 'B': 12.0, 'O': 36.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1209044,\"{'Sc': 20.0, 'Sb': 12.0}\",\"('Sb', 'Sc')\",OTHERS,False\nmp-1196608,\"{'Nd': 12.0, 'Tl': 2.0, 'Fe': 26.0}\",\"('Fe', 'Nd', 'Tl')\",OTHERS,False\nmp-559994,\"{'La': 24.0, 'S': 16.0, 'Br': 4.0, 'N': 12.0}\",\"('Br', 'La', 'N', 'S')\",OTHERS,False\nmp-510357,\"{'La': 8.0, 'Br': 10.0, 'B': 8.0}\",\"('B', 'Br', 'La')\",OTHERS,False\nmp-1019108,\"{'Sm': 2.0, 'Co': 2.0, 'Si': 2.0}\",\"('Co', 'Si', 'Sm')\",OTHERS,False\nmp-1191536,\"{'Eu': 2.0, 'Zn': 22.0}\",\"('Eu', 'Zn')\",OTHERS,False\nmp-19039,\"{'O': 8.0, 'Mo': 2.0, 'Cd': 2.0}\",\"('Cd', 'Mo', 'O')\",OTHERS,False\nmp-1066,\"{'N': 1.0, 'Yb': 1.0}\",\"('N', 'Yb')\",OTHERS,False\nmp-1211215,\"{'Li': 8.0, 'Nd': 4.0, 'N': 20.0, 'O': 60.0}\",\"('Li', 'N', 'Nd', 'O')\",OTHERS,False\nmp-19356,\"{'O': 18.0, 'Mn': 6.0, 'Yb': 6.0}\",\"('Mn', 'O', 'Yb')\",OTHERS,False\nmp-1173397,\"{'Sc': 6.0, 'Nb': 2.0, 'O': 14.0}\",\"('Nb', 'O', 'Sc')\",OTHERS,False\nmp-972439,\"{'Zn': 6.0, 'P': 4.0, 'O': 16.0}\",\"('O', 'P', 'Zn')\",OTHERS,False\nmp-1227705,\"{'Ba': 1.0, 'Sr': 1.0, 'Ca': 1.0, 'Mg': 1.0, 'Si': 2.0, 'O': 8.0}\",\"('Ba', 'Ca', 'Mg', 'O', 'Si', 'Sr')\",OTHERS,False\nmp-6574,\"{'C': 1.0, 'N': 2.0, 'O': 2.0, 'Er': 2.0}\",\"('C', 'Er', 'N', 'O')\",OTHERS,False\nmvc-657,\"{'Fe': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Fe', 'O', 'W')\",OTHERS,False\nmp-675374,\"{'Al': 4.0, 'Pb': 2.0, 'Se': 8.0}\",\"('Al', 'Pb', 'Se')\",OTHERS,False\nmp-1214906,\"{'Ag': 2.0, 'Mo': 2.0, 'O': 8.0}\",\"('Ag', 'Mo', 'O')\",OTHERS,False\nmp-13283,\"{'S': 12.0, 'Sm': 2.0, 'Er': 6.0}\",\"('Er', 'S', 'Sm')\",OTHERS,False\nmp-1179608,\"{'S': 2.0, 'O': 8.0}\",\"('O', 'S')\",OTHERS,False\nmp-616615,\"{'Hf': 16.0, 'Mn': 2.0, 'Te': 12.0}\",\"('Hf', 'Mn', 'Te')\",OTHERS,False\nmp-1189383,\"{'Li': 4.0, 'Cd': 2.0, 'Ge': 2.0, 'S': 8.0}\",\"('Cd', 'Ge', 'Li', 'S')\",OTHERS,False\nmp-1222873,\"{'Li': 2.0, 'Al': 1.0, 'Ni': 3.0, 'O': 6.0}\",\"('Al', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-625211,\"{'Li': 2.0, 'H': 6.0, 'O': 4.0}\",\"('H', 'Li', 'O')\",OTHERS,False\nmp-1245835,\"{'Pd': 2.0, 'C': 4.0, 'N': 4.0}\",\"('C', 'N', 'Pd')\",OTHERS,False\nmp-1200792,\"{'Fe': 4.0, 'P': 16.0, 'C': 16.0, 'O': 40.0}\",\"('C', 'Fe', 'O', 'P')\",OTHERS,False\nmp-1175669,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-22417,\"{'Li': 4.0, 'O': 16.0, 'P': 4.0, 'Ni': 4.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-631267,\"{'Ta': 1.0, 'Fe': 1.0, 'Sb': 1.0}\",\"('Fe', 'Sb', 'Ta')\",OTHERS,False\nmp-1222349,\"{'Li': 2.0, 'Ge': 2.0, 'Rh': 2.0, 'O': 8.0}\",\"('Ge', 'Li', 'O', 'Rh')\",OTHERS,False\nmp-1076897,\"{'Ca': 28.0, 'Mg': 4.0, 'Mn': 32.0, 'O': 80.0}\",\"('Ca', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-619577,\"{'K': 16.0, 'V': 16.0, 'P': 32.0, 'O': 120.0}\",\"('K', 'O', 'P', 'V')\",OTHERS,False\nmp-1227547,\"{'Cu': 6.0, 'Pb': 2.0, 'Se': 6.0, 'N': 2.0, 'O': 27.0}\",\"('Cu', 'N', 'O', 'Pb', 'Se')\",OTHERS,False\nmp-1147764,\"{'Na': 4.0, 'Cu': 2.0, 'I': 4.0, 'Cl': 4.0}\",\"('Cl', 'Cu', 'I', 'Na')\",OTHERS,False\nmp-983388,\"{'K': 3.0, 'Hg': 1.0}\",\"('Hg', 'K')\",OTHERS,False\nmp-722979,\"{'K': 4.0, 'Zn': 2.0, 'H': 16.0, 'N': 8.0}\",\"('H', 'K', 'N', 'Zn')\",OTHERS,False\nmp-1176187,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-560223,\"{'K': 8.0, 'Se': 4.0, 'S': 8.0, 'O': 24.0}\",\"('K', 'O', 'S', 'Se')\",OTHERS,False\nmp-1217234,\"{'Ti': 8.0, 'Co': 3.0, 'Ni': 1.0, 'Sn': 4.0}\",\"('Co', 'Ni', 'Sn', 'Ti')\",OTHERS,False\nmp-1093568,\"{'Y': 1.0, 'Zn': 2.0, 'Pd': 1.0}\",\"('Pd', 'Y', 'Zn')\",OTHERS,False\nmp-1040315,\"{'K': 1.0, 'Mg': 30.0, 'B': 1.0, 'O': 31.0}\",\"('B', 'K', 'Mg', 'O')\",OTHERS,False\nmp-771282,\"{'Li': 24.0, 'Ti': 7.0, 'Cr': 5.0, 'O': 36.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-758332,\"{'Ca': 4.0, 'Gd': 16.0, 'O': 28.0}\",\"('Ca', 'Gd', 'O')\",OTHERS,False\nmvc-8343,\"{'Ca': 4.0, 'Cr': 4.0, 'Ni': 4.0, 'P': 8.0, 'O': 36.0}\",\"('Ca', 'Cr', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1097023,\"{'K': 4.0, 'Fe': 4.0, 'O': 12.0}\",\"('Fe', 'K', 'O')\",OTHERS,False\nmp-752931,\"{'Li': 2.0, 'Mn': 1.0, 'F': 4.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-774311,\"{'Li': 12.0, 'Mn': 4.0, 'V': 4.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1189104,\"{'Eu': 6.0, 'Ga': 4.0, 'P': 8.0}\",\"('Eu', 'Ga', 'P')\",OTHERS,False\nmp-570759,\"{'Tb': 8.0, 'Bi': 6.0}\",\"('Bi', 'Tb')\",OTHERS,False\nmp-582084,\"{'Cd': 18.0, 'I': 36.0}\",\"('Cd', 'I')\",OTHERS,False\nmp-1198634,\"{'Yb': 2.0, 'P': 6.0, 'H': 12.0, 'O': 12.0}\",\"('H', 'O', 'P', 'Yb')\",OTHERS,False\nmp-1214425,\"{'C': 96.0, 'Br': 8.0, 'F': 72.0}\",\"('Br', 'C', 'F')\",OTHERS,False\nmp-758373,\"{'Li': 8.0, 'Co': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,False\nmp-1218226,\"{'Sr': 2.0, 'La': 2.0, 'Ga': 2.0, 'Cu': 2.0, 'O': 10.0}\",\"('Cu', 'Ga', 'La', 'O', 'Sr')\",OTHERS,False\nmp-1095715,\"{'Ca': 1.0, 'La': 1.0, 'Rh': 2.0}\",\"('Ca', 'La', 'Rh')\",OTHERS,False\nmp-14883,\"{'S': 10.0, 'Zr': 3.0, 'Ba': 4.0}\",\"('Ba', 'S', 'Zr')\",OTHERS,False\nmp-24664,\"{'H': 16.0, 'C': 4.0, 'N': 8.0, 'O': 4.0, 'Cl': 4.0, 'Zn': 2.0}\",\"('C', 'Cl', 'H', 'N', 'O', 'Zn')\",OTHERS,False\nmp-850538,\"{'Mn': 2.0, 'Fe': 3.0, 'Sn': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Mn', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1225646,\"{'Dy': 12.0, 'Cu': 4.0, 'Se': 24.0}\",\"('Cu', 'Dy', 'Se')\",OTHERS,False\nmp-1196142,\"{'Te': 8.0, 'N': 4.0, 'O': 24.0}\",\"('N', 'O', 'Te')\",OTHERS,False\nmp-1239184,\"{'Cr': 8.0, 'Hg': 4.0, 'S': 16.0}\",\"('Cr', 'Hg', 'S')\",OTHERS,False\nmp-8720,\"{'Mn': 2.0, 'Rb': 4.0, 'Te': 4.0}\",\"('Mn', 'Rb', 'Te')\",OTHERS,False\nmp-677349,\"{'Li': 22.0, 'Mn': 2.0, 'As': 12.0}\",\"('As', 'Li', 'Mn')\",OTHERS,False\nmp-1217575,\"{'Th': 14.0, 'Ag': 51.0}\",\"('Ag', 'Th')\",OTHERS,False\nmp-1205783,\"{'Na': 1.0, 'Sc': 1.0, 'N': 2.0, 'F': 6.0}\",\"('F', 'N', 'Na', 'Sc')\",OTHERS,False\nmp-675711,\"{'Li': 2.0, 'Mo': 12.0, 'S': 16.0}\",\"('Li', 'Mo', 'S')\",OTHERS,False\nmp-770619,\"{'Li': 24.0, 'Mn': 11.0, 'Cr': 1.0, 'O': 36.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1025084,\"{'Ho': 2.0, 'B': 2.0, 'C': 2.0}\",\"('B', 'C', 'Ho')\",OTHERS,False\nmvc-8947,\"{'Ca': 2.0, 'La': 2.0, 'Fe': 2.0, 'Ni': 2.0, 'O': 12.0}\",\"('Ca', 'Fe', 'La', 'Ni', 'O')\",OTHERS,False\nmp-1186661,\"{'Pu': 1.0, 'Cl': 1.0}\",\"('Cl', 'Pu')\",OTHERS,False\nmp-685369,\"{'Ti': 6.0, 'Fe': 14.0, 'O': 30.0}\",\"('Fe', 'O', 'Ti')\",OTHERS,False\nmp-7921,\"{'F': 6.0, 'Mg': 1.0, 'Pd': 1.0}\",\"('F', 'Mg', 'Pd')\",OTHERS,False\nmp-541047,\"{'Al': 1.0, 'Pd': 2.0, 'Zr': 1.0}\",\"('Al', 'Pd', 'Zr')\",OTHERS,False\nmp-1246515,\"{'Ca': 12.0, 'Te': 6.0, 'N': 4.0}\",\"('Ca', 'N', 'Te')\",OTHERS,False\nmp-28550,\"{'F': 14.0, 'Ag': 3.0, 'Hf': 2.0}\",\"('Ag', 'F', 'Hf')\",OTHERS,False\nmp-23194,\"{'La': 1.0, 'I': 2.0}\",\"('I', 'La')\",OTHERS,False\nmp-1201679,\"{'Ba': 4.0, 'La': 8.0, 'W': 4.0, 'O': 28.0}\",\"('Ba', 'La', 'O', 'W')\",OTHERS,False\nmp-753188,\"{'Li': 5.0, 'Mn': 2.0, 'Co': 5.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-19112,\"{'O': 8.0, 'S': 2.0, 'Fe': 2.0}\",\"('Fe', 'O', 'S')\",OTHERS,False\nmp-21895,\"{'Na': 30.0, 'Pb': 8.0}\",\"('Na', 'Pb')\",OTHERS,False\nmp-982243,\"{'Y': 6.0, 'Sn': 2.0}\",\"('Sn', 'Y')\",OTHERS,False\nmp-12466,\"{'Fe': 2.0, 'Se': 4.0, 'Pd': 4.0}\",\"('Fe', 'Pd', 'Se')\",OTHERS,False\nmp-669913,\"{'Sr': 4.0, 'Pb': 6.0}\",\"('Pb', 'Sr')\",OTHERS,False\nmvc-13624,\"{'Ca': 1.0, 'La': 2.0, 'Ti': 1.0, 'O': 6.0}\",\"('Ca', 'La', 'O', 'Ti')\",OTHERS,False\nmp-759047,\"{'Li': 12.0, 'Cr': 3.0, 'P': 6.0, 'O': 24.0, 'F': 6.0}\",\"('Cr', 'F', 'Li', 'O', 'P')\",OTHERS,False\nmp-1199246,\"{'Ba': 10.0, 'B': 6.0, 'Br': 2.0, 'O': 18.0}\",\"('B', 'Ba', 'Br', 'O')\",OTHERS,False\nmp-775072,\"{'Li': 4.0, 'Mn': 3.0, 'Cu': 2.0, 'Sb': 3.0, 'O': 16.0}\",\"('Cu', 'Li', 'Mn', 'O', 'Sb')\",OTHERS,False\nmp-1188841,\"{'Ba': 1.0, 'Nb': 2.0, 'V': 2.0, 'O': 11.0}\",\"('Ba', 'Nb', 'O', 'V')\",OTHERS,False\nmp-3782,\"{'O': 24.0, 'Sb': 10.0, 'Nd': 6.0}\",\"('Nd', 'O', 'Sb')\",OTHERS,False\nmp-1112894,\"{'Cs': 2.0, 'In': 1.0, 'As': 1.0, 'Cl': 6.0}\",\"('As', 'Cl', 'Cs', 'In')\",OTHERS,False\nmp-675755,\"{'Ti': 1.0, 'Cu': 3.0, 'O': 4.0}\",\"('Cu', 'O', 'Ti')\",OTHERS,False\nmp-752935,\"{'Li': 2.0, 'Fe': 4.0, 'O': 8.0}\",\"('Fe', 'Li', 'O')\",OTHERS,False\nmp-1079395,\"{'Ce': 4.0, 'Ge': 4.0}\",\"('Ce', 'Ge')\",OTHERS,False\nmp-777583,\"{'Li': 8.0, 'Mn': 3.0, 'Fe': 5.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-812,\"{'O': 24.0, 'Ho': 16.0}\",\"('Ho', 'O')\",OTHERS,False\nmp-24798,\"{'H': 12.0, 'B': 12.0, 'Cl': 1.0, 'Rb': 3.0}\",\"('B', 'Cl', 'H', 'Rb')\",OTHERS,False\nmvc-2321,\"{'Ba': 4.0, 'Mg': 2.0, 'Co': 4.0, 'Cu': 2.0, 'F': 28.0}\",\"('Ba', 'Co', 'Cu', 'F', 'Mg')\",OTHERS,False\nmp-1176570,\"{'Mn': 3.0, 'Ni': 1.0, 'Sn': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Mn', 'Ni', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1183235,\"{'Ac': 1.0, 'Nd': 3.0}\",\"('Ac', 'Nd')\",OTHERS,False\nmp-6073,\"{'O': 48.0, 'Mg': 12.0, 'Al': 8.0, 'Si': 12.0}\",\"('Al', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1209845,\"{'Nd': 4.0, 'Si': 4.0, 'Pd': 8.0}\",\"('Nd', 'Pd', 'Si')\",OTHERS,False\nmp-758399,\"{'Li': 6.0, 'V': 3.0, 'Cr': 3.0, 'P': 6.0, 'H': 6.0, 'O': 30.0}\",\"('Cr', 'H', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1024052,\"{'Na': 8.0, 'Zn': 4.0, 'Se': 8.0}\",\"('Na', 'Se', 'Zn')\",OTHERS,False\nmp-570807,\"{'Sr': 4.0, 'In': 13.0, 'Au': 9.0}\",\"('Au', 'In', 'Sr')\",OTHERS,False\nmp-1782,\"{'Sc': 1.0, 'Se': 1.0}\",\"('Sc', 'Se')\",OTHERS,False\nmp-1222754,\"{'La': 1.0, 'Y': 1.0, 'Mg': 6.0}\",\"('La', 'Mg', 'Y')\",OTHERS,False\nmp-1178224,\"{'Fe': 4.0, 'O': 4.0, 'F': 4.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-11327,\"{'Se': 1.0, 'Rb': 2.0}\",\"('Rb', 'Se')\",OTHERS,False\nmp-1184476,\"{'Gd': 2.0, 'In': 1.0, 'Hg': 1.0}\",\"('Gd', 'Hg', 'In')\",OTHERS,False\nmp-558982,\"{'Hg': 4.0, 'C': 8.0, 'O': 8.0, 'F': 12.0}\",\"('C', 'F', 'Hg', 'O')\",OTHERS,False\nmp-1245091,\"{'Cr': 32.0, 'O': 48.0}\",\"('Cr', 'O')\",OTHERS,False\nmp-7795,\"{'Rb': 1.0, 'Sn': 1.0, 'S': 2.0}\",\"('Rb', 'S', 'Sn')\",OTHERS,False\nmp-723002,\"{'Ag': 4.0, 'H': 24.0, 'S': 2.0, 'N': 8.0, 'O': 8.0}\",\"('Ag', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-1080016,\"{'Tl': 6.0, 'Ir': 2.0}\",\"('Ir', 'Tl')\",OTHERS,False\nmp-20353,\"{'Ga': 2.0, 'Gd': 2.0}\",\"('Ga', 'Gd')\",OTHERS,False\nmp-574486,\"{'Ag': 8.0, 'C': 4.0, 'N': 8.0}\",\"('Ag', 'C', 'N')\",OTHERS,False\nmp-1203864,\"{'B': 8.0, 'P': 24.0, 'Pb': 24.0, 'O': 96.0}\",\"('B', 'O', 'P', 'Pb')\",OTHERS,False\nmp-768846,\"{'Rb': 2.0, 'Fe': 4.0, 'O': 7.0}\",\"('Fe', 'O', 'Rb')\",OTHERS,False\nmvc-6932,\"{'Ca': 2.0, 'Cr': 4.0, 'O': 8.0}\",\"('Ca', 'Cr', 'O')\",OTHERS,False\nmp-9771,\"{'O': 6.0, 'Ti': 2.0, 'U': 1.0}\",\"('O', 'Ti', 'U')\",OTHERS,False\nmp-774237,\"{'Li': 5.0, 'Cr': 2.0, 'Ni': 5.0, 'O': 12.0}\",\"('Cr', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-1203988,\"{'H': 30.0, 'Pd': 2.0, 'Ru': 2.0, 'N': 18.0, 'O': 22.0}\",\"('H', 'N', 'O', 'Pd', 'Ru')\",OTHERS,False\nmp-757668,\"{'Li': 4.0, 'Mn': 3.0, 'Ni': 2.0, 'Sb': 3.0, 'O': 16.0}\",\"('Li', 'Mn', 'Ni', 'O', 'Sb')\",OTHERS,False\nmp-1177871,\"{'Li': 2.0, 'Nb': 1.0, 'Co': 3.0, 'O': 8.0}\",\"('Co', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-1209024,\"{'Sc': 12.0, 'Sn': 10.0}\",\"('Sc', 'Sn')\",OTHERS,False\nmp-19803,\"{'O': 8.0, 'Cd': 2.0, 'In': 4.0}\",\"('Cd', 'In', 'O')\",OTHERS,False\nmp-752820,\"{'Li': 4.0, 'V': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1228657,\"{'B': 4.0, 'Ru': 2.0, 'W': 2.0}\",\"('B', 'Ru', 'W')\",OTHERS,False\nmp-1101695,\"{'Na': 2.0, 'Fe': 24.0, 'O': 38.0}\",\"('Fe', 'Na', 'O')\",OTHERS,False\nmp-1175904,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-779498,\"{'Ba': 24.0, 'Cl': 16.0, 'O': 16.0}\",\"('Ba', 'Cl', 'O')\",OTHERS,False\nmp-1192618,\"{'Nb': 8.0, 'Fe': 8.0, 'Si': 14.0}\",\"('Fe', 'Nb', 'Si')\",OTHERS,False\nmp-19875,\"{'Si': 2.0, 'Ru': 2.0, 'Gd': 2.0}\",\"('Gd', 'Ru', 'Si')\",OTHERS,False\nmp-1104829,\"{'Nb': 5.0, 'Sn': 1.0, 'Se': 8.0}\",\"('Nb', 'Se', 'Sn')\",OTHERS,False\nmp-1185170,\"{'La': 3.0, 'Lu': 1.0}\",\"('La', 'Lu')\",OTHERS,False\nmp-865429,\"{'Yb': 1.0, 'Y': 1.0, 'Rh': 2.0}\",\"('Rh', 'Y', 'Yb')\",OTHERS,False\nmp-1184327,\"{'Eu': 3.0, 'V': 1.0}\",\"('Eu', 'V')\",OTHERS,False\nmp-1173284,\"{'Sr': 24.0, 'Fe': 12.0, 'Mo': 12.0, 'O': 72.0}\",\"('Fe', 'Mo', 'O', 'Sr')\",OTHERS,False\nmp-995122,\"{'Nb': 1.0, 'S': 2.0}\",\"('Nb', 'S')\",OTHERS,False\nmp-1193749,\"{'Rb': 4.0, 'Mg': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Mg', 'O', 'P', 'Rb')\",OTHERS,False\nmp-1100345,\"{'Ca': 2.0, 'Sn': 2.0, 'S': 6.0}\",\"('Ca', 'S', 'Sn')\",OTHERS,False\nmp-3779,\"{'Si': 2.0, 'Cr': 2.0, 'Te': 6.0}\",\"('Cr', 'Si', 'Te')\",OTHERS,False\nmp-1223321,\"{'K': 4.0, 'Ta': 4.0, 'Si': 8.0, 'O': 28.0}\",\"('K', 'O', 'Si', 'Ta')\",OTHERS,False\nmp-760022,\"{'Mn': 12.0, 'O': 10.0, 'F': 14.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1206382,\"{'Tm': 2.0, 'Ni': 2.0, 'Pb': 1.0}\",\"('Ni', 'Pb', 'Tm')\",OTHERS,False\nmp-561712,\"{'Cs': 4.0, 'Er': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Cs', 'Er', 'O', 'P')\",OTHERS,False\nmp-1066131,\"{'Y': 1.0, 'Tl': 1.0, 'S': 2.0}\",\"('S', 'Tl', 'Y')\",OTHERS,False\nmp-865751,\"{'Yb': 1.0, 'Dy': 1.0, 'Rh': 2.0}\",\"('Dy', 'Rh', 'Yb')\",OTHERS,False\nmp-1184505,\"{'Gd': 1.0, 'Pa': 1.0, 'Tc': 2.0}\",\"('Gd', 'Pa', 'Tc')\",OTHERS,False\nmp-1215634,\"{'Zr': 4.0, 'Te': 6.0}\",\"('Te', 'Zr')\",OTHERS,False\nmp-554461,\"{'K': 2.0, 'Os': 4.0, 'O': 12.0}\",\"('K', 'O', 'Os')\",OTHERS,False\nmp-755927,\"{'Li': 2.0, 'Cr': 3.0, 'Fe': 1.0, 'O': 8.0}\",\"('Cr', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-861894,\"{'Li': 2.0, 'La': 1.0, 'Sn': 1.0}\",\"('La', 'Li', 'Sn')\",OTHERS,False\nmp-1222347,\"{'Li': 2.0, 'Ti': 2.0, 'Cr': 2.0, 'O': 8.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-1216437,\"{'V': 6.0, 'Ge': 1.0, 'Os': 1.0}\",\"('Ge', 'Os', 'V')\",OTHERS,False\nmp-1221259,\"{'Na': 3.0, 'Ca': 1.0, 'Mg': 1.0, 'Cr': 3.0, 'Si': 8.0, 'O': 24.0}\",\"('Ca', 'Cr', 'Mg', 'Na', 'O', 'Si')\",OTHERS,False\nmp-559871,\"{'Al': 6.0, 'F': 18.0}\",\"('Al', 'F')\",OTHERS,False\nmp-35031,\"{'Cu': 1.0, 'Pr': 5.0, 'Se': 8.0}\",\"('Cu', 'Pr', 'Se')\",OTHERS,False\nmp-600029,\"{'Si': 24.0, 'O': 48.0}\",\"('O', 'Si')\",OTHERS,False\nmp-757062,\"{'Li': 4.0, 'Nb': 3.0, 'V': 3.0, 'Sn': 2.0, 'O': 16.0}\",\"('Li', 'Nb', 'O', 'Sn', 'V')\",OTHERS,False\nmp-1212579,\"{'H': 24.0, 'C': 24.0, 'N': 40.0}\",\"('C', 'H', 'N')\",OTHERS,False\nmp-1175048,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-556289,\"{'Na': 8.0, 'Er': 4.0, 'Mo': 4.0, 'P': 4.0, 'O': 32.0}\",\"('Er', 'Mo', 'Na', 'O', 'P')\",OTHERS,False\nmp-1246047,\"{'Te': 2.0, 'C': 2.0, 'N': 4.0}\",\"('C', 'N', 'Te')\",OTHERS,False\nmp-2176,\"{'Zn': 1.0, 'Te': 1.0}\",\"('Te', 'Zn')\",OTHERS,False\nmp-1202079,\"{'Ti': 42.0, 'Mn': 50.0}\",\"('Mn', 'Ti')\",OTHERS,False\nmvc-5090,\"{'Ca': 4.0, 'Ti': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Ca', 'O', 'Ti', 'W')\",OTHERS,False\nmp-984716,\"{'Ca': 1.0, 'Sn': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Ca', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1175920,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-566602,\"{'La': 4.0, 'Mn': 4.0, 'O': 12.0}\",\"('La', 'Mn', 'O')\",OTHERS,False\nmp-1079810,\"{'Hf': 3.0, 'Sn': 6.0}\",\"('Hf', 'Sn')\",OTHERS,False\nmp-505042,\"{'Bi': 8.0, 'Cu': 4.0, 'O': 16.0}\",\"('Bi', 'Cu', 'O')\",OTHERS,False\nmp-36526,\"{'Ac': 1.0, 'F': 1.0, 'O': 1.0}\",\"('Ac', 'F', 'O')\",OTHERS,False\nmp-683950,\"{'Ca': 20.0, 'Pr': 8.0, 'Cu': 48.0, 'O': 82.0}\",\"('Ca', 'Cu', 'O', 'Pr')\",OTHERS,False\nmp-777883,\"{'Ba': 24.0, 'Y': 4.0, 'Cl': 60.0}\",\"('Ba', 'Cl', 'Y')\",OTHERS,False\nmp-558048,\"{'Na': 2.0, 'V': 2.0, 'Ge': 4.0, 'O': 12.0}\",\"('Ge', 'Na', 'O', 'V')\",OTHERS,False\nmp-1204281,\"{'Hf': 12.0, 'Ge': 24.0, 'Ru': 12.0}\",\"('Ge', 'Hf', 'Ru')\",OTHERS,False\nmp-1216310,\"{'V': 2.0, 'Mo': 2.0, 'As': 4.0}\",\"('As', 'Mo', 'V')\",OTHERS,False\nmp-1102373,\"{'Y': 4.0, 'Ge': 4.0, 'Ir': 4.0}\",\"('Ge', 'Ir', 'Y')\",OTHERS,False\nmp-975051,\"{'Rb': 3.0, 'Ag': 1.0}\",\"('Ag', 'Rb')\",OTHERS,False\nmp-1183999,\"{'Cs': 1.0, 'Yb': 3.0}\",\"('Cs', 'Yb')\",OTHERS,False\nmp-1222787,\"{'La': 2.0, 'Ti': 2.0, 'Nb': 2.0, 'O': 12.0}\",\"('La', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-1195884,\"{'K': 4.0, 'Nd': 2.0, 'N': 10.0, 'O': 34.0}\",\"('K', 'N', 'Nd', 'O')\",OTHERS,False\nmp-1185611,\"{'Lu': 3.0, 'Pu': 1.0}\",\"('Lu', 'Pu')\",OTHERS,False\nmp-771523,\"{'Li': 4.0, 'Cr': 8.0, 'O': 16.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-541997,\"{'K': 12.0, 'Fe': 4.0, 'Se': 12.0}\",\"('Fe', 'K', 'Se')\",OTHERS,False\nmp-16037,\"{'O': 2.0, 'Te': 1.0, 'Dy': 2.0}\",\"('Dy', 'O', 'Te')\",OTHERS,False\nmp-1190394,\"{'Nd': 8.0, 'Fe': 2.0, 'S': 12.0, 'O': 2.0}\",\"('Fe', 'Nd', 'O', 'S')\",OTHERS,False\nmp-1099080,\"{'Mg': 14.0, 'Fe': 1.0, 'Co': 1.0}\",\"('Co', 'Fe', 'Mg')\",OTHERS,False\nmp-1245707,\"{'Sb': 2.0, 'Te': 2.0, 'N': 2.0}\",\"('N', 'Sb', 'Te')\",OTHERS,False\nmp-705526,\"{'H': 64.0, 'Au': 4.0, 'C': 24.0, 'S': 8.0, 'N': 16.0, 'Cl': 4.0, 'O': 16.0}\",\"('Au', 'C', 'Cl', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-31378,\"{'O': 52.0, 'Cr': 16.0, 'Cs': 8.0}\",\"('Cr', 'Cs', 'O')\",OTHERS,False\nmp-267,\"{'Ru': 2.0, 'Te': 4.0}\",\"('Ru', 'Te')\",OTHERS,False\nmp-504357,\"{'Cr': 16.0, 'P': 12.0, 'O': 48.0}\",\"('Cr', 'O', 'P')\",OTHERS,False\nmp-1224618,\"{'Ho': 5.0, 'Co': 19.0, 'P': 12.0}\",\"('Co', 'Ho', 'P')\",OTHERS,False\nmp-1190699,\"{'C': 8.0, 'O': 16.0}\",\"('C', 'O')\",OTHERS,False\nmp-1217824,\"{'Ta': 1.0, 'V': 1.0, 'C': 1.0, 'N': 1.0}\",\"('C', 'N', 'Ta', 'V')\",OTHERS,False\nmp-21683,\"{'In': 2.0, 'Ni': 21.0, 'P': 6.0}\",\"('In', 'Ni', 'P')\",OTHERS,False\nmp-754078,\"{'Li': 1.0, 'Fe': 2.0, 'P': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1226274,\"{'Cs': 2.0, 'K': 1.0, 'Ti': 1.0, 'O': 2.0, 'F': 3.0}\",\"('Cs', 'F', 'K', 'O', 'Ti')\",OTHERS,False\nmp-560022,\"{'Ba': 18.0, 'Nb': 4.0, 'C': 2.0, 'N': 20.0, 'O': 2.0}\",\"('Ba', 'C', 'N', 'Nb', 'O')\",OTHERS,False\nmp-1187717,{'Y': 4.0},\"('Y',)\",OTHERS,False\nmp-1103473,\"{'Cs': 1.0, 'Cr': 1.0, 'P': 2.0, 'S': 7.0}\",\"('Cr', 'Cs', 'P', 'S')\",OTHERS,False\nmp-24066,\"{'H': 2.0, 'O': 2.0, 'Cl': 2.0, 'Sr': 2.0}\",\"('Cl', 'H', 'O', 'Sr')\",OTHERS,False\nmp-557825,\"{'H': 8.0, 'C': 2.0, 'N': 4.0, 'O': 2.0}\",\"('C', 'H', 'N', 'O')\",OTHERS,False\nmp-974469,\"{'Re': 2.0, 'Te': 2.0}\",\"('Re', 'Te')\",OTHERS,False\nmp-1189057,\"{'Lu': 4.0, 'Ge': 4.0, 'Pd': 8.0}\",\"('Ge', 'Lu', 'Pd')\",OTHERS,False\nmp-1235846,\"{'Sr': 2.0, 'Li': 1.0, 'O': 12.0}\",\"('Li', 'O', 'Sr')\",OTHERS,False\nmp-556459,\"{'V': 2.0, 'P': 2.0, 'O': 10.0}\",\"('O', 'P', 'V')\",OTHERS,False\nmp-1245656,\"{'K': 2.0, 'Pd': 2.0, 'N': 2.0}\",\"('K', 'N', 'Pd')\",OTHERS,False\nmp-1220381,\"{'Nb': 6.0, 'Ga': 1.0, 'Ge': 1.0}\",\"('Ga', 'Ge', 'Nb')\",OTHERS,False\nmp-675743,\"{'Mg': 2.0, 'Mo': 12.0, 'Se': 16.0}\",\"('Mg', 'Mo', 'Se')\",OTHERS,False\nmp-1184233,\"{'Er': 1.0, 'Mg': 1.0, 'Ag': 2.0}\",\"('Ag', 'Er', 'Mg')\",OTHERS,False\nmp-1094804,\"{'Mg': 4.0, 'Cd': 8.0}\",\"('Cd', 'Mg')\",OTHERS,False\nmp-560090,\"{'Mn': 4.0, 'Ni': 12.0, 'Te': 6.0, 'Pb': 2.0, 'O': 36.0}\",\"('Mn', 'Ni', 'O', 'Pb', 'Te')\",OTHERS,False\nmp-4788,\"{'O': 12.0, 'K': 2.0, 'Os': 4.0}\",\"('K', 'O', 'Os')\",OTHERS,False\nmp-734561,\"{'Rb': 6.0, 'P': 6.0, 'H': 8.0, 'O': 24.0}\",\"('H', 'O', 'P', 'Rb')\",OTHERS,False\nmp-755567,\"{'Fe': 6.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1104131,\"{'Nb': 2.0, 'P': 2.0, 'O': 10.0}\",\"('Nb', 'O', 'P')\",OTHERS,False\nmp-707290,\"{'Nb': 20.0, 'Pb': 28.0, 'O': 78.0}\",\"('Nb', 'O', 'Pb')\",OTHERS,False\nmp-1219465,\"{'Sm': 4.0, 'Re': 12.0, 'O': 60.0}\",\"('O', 'Re', 'Sm')\",OTHERS,False\nmp-1212327,\"{'Ho': 16.0, 'Al': 8.0, 'O': 36.0}\",\"('Al', 'Ho', 'O')\",OTHERS,False\nmp-752651,\"{'Li': 4.0, 'Ti': 2.0, 'Nb': 3.0, 'Cu': 3.0, 'O': 16.0}\",\"('Cu', 'Li', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-1194276,\"{'Ca': 4.0, 'Ho': 8.0, 'S': 16.0}\",\"('Ca', 'Ho', 'S')\",OTHERS,False\nmp-1225693,\"{'Dy': 1.0, 'Mn': 2.0, 'Si': 1.0, 'Ge': 1.0}\",\"('Dy', 'Ge', 'Mn', 'Si')\",OTHERS,False\nmp-11873,\"{'As': 1.0, 'Pd': 5.0, 'Tl': 1.0}\",\"('As', 'Pd', 'Tl')\",OTHERS,False\nmp-778809,\"{'Fe': 10.0, 'O': 14.0, 'F': 6.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-8219,\"{'P': 2.0, 'Cu': 2.0, 'Zr': 1.0}\",\"('Cu', 'P', 'Zr')\",OTHERS,False\nmp-1191259,\"{'Cu': 3.0, 'Bi': 2.0, 'P': 2.0, 'O': 14.0}\",\"('Bi', 'Cu', 'O', 'P')\",OTHERS,False\nmp-11523,\"{'Ni': 3.0, 'Sn': 1.0}\",\"('Ni', 'Sn')\",OTHERS,False\nmp-631495,\"{'Ba': 1.0, 'Y': 1.0, 'Sc': 1.0}\",\"('Ba', 'Sc', 'Y')\",OTHERS,False\nmp-21620,\"{'Si': 20.0, 'Tc': 12.0, 'U': 8.0}\",\"('Si', 'Tc', 'U')\",OTHERS,False\nmp-1182246,\"{'Ba': 2.0, 'Ge': 6.0, 'O': 16.0}\",\"('Ba', 'Ge', 'O')\",OTHERS,False\nmp-752890,\"{'Li': 2.0, 'Cu': 4.0, 'C': 4.0, 'O': 14.0}\",\"('C', 'Cu', 'Li', 'O')\",OTHERS,False\nmp-23405,\"{'Br': 6.0, 'Te': 1.0, 'Cs': 2.0}\",\"('Br', 'Cs', 'Te')\",OTHERS,False\nmp-1198640,\"{'Mg': 1.0, 'Hg': 6.0, 'N': 6.0, 'O': 26.0}\",\"('Hg', 'Mg', 'N', 'O')\",OTHERS,False\nmp-1185830,\"{'Mg': 5.0, 'In': 1.0}\",\"('In', 'Mg')\",OTHERS,False\nmp-765020,\"{'Sr': 24.0, 'Fe': 16.0, 'O': 53.0}\",\"('Fe', 'O', 'Sr')\",OTHERS,False\nmp-752865,\"{'Li': 4.0, 'Mn': 5.0, 'Cu': 3.0, 'O': 16.0}\",\"('Cu', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-767518,\"{'Na': 4.0, 'Sc': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Na', 'O', 'P', 'Sc')\",OTHERS,False\nmp-774463,\"{'Li': 6.0, 'Cr': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-676663,\"{'Zn': 6.0, 'Sn': 6.0, 'Sb': 12.0}\",\"('Sb', 'Sn', 'Zn')\",OTHERS,False\nmp-555509,\"{'Ho': 6.0, 'Cu': 2.0, 'Ge': 2.0, 'S': 14.0}\",\"('Cu', 'Ge', 'Ho', 'S')\",OTHERS,False\nmp-1219565,\"{'Rb': 1.0, 'O': 2.0}\",\"('O', 'Rb')\",OTHERS,False\nmp-1218104,\"{'Sr': 1.0, 'Pr': 3.0, 'Fe': 4.0, 'O': 12.0}\",\"('Fe', 'O', 'Pr', 'Sr')\",OTHERS,False\nmp-1114631,\"{'Rb': 3.0, 'Sb': 1.0, 'Cl': 6.0}\",\"('Cl', 'Rb', 'Sb')\",OTHERS,False\nmp-765146,\"{'Li': 20.0, 'V': 4.0, 'C': 16.0, 'O': 48.0}\",\"('C', 'Li', 'O', 'V')\",OTHERS,False\nmp-768438,\"{'Li': 16.0, 'Ti': 4.0, 'Cr': 4.0, 'O': 24.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-557969,\"{'Li': 2.0, 'La': 4.0, 'S': 4.0, 'O': 16.0, 'F': 6.0}\",\"('F', 'La', 'Li', 'O', 'S')\",OTHERS,False\nmp-754659,\"{'Zr': 6.0, 'N': 4.0, 'O': 6.0}\",\"('N', 'O', 'Zr')\",OTHERS,False\nmp-677732,\"{'Nd': 2.0, 'Ti': 4.0, 'Cd': 2.0, 'O': 12.0, 'F': 2.0}\",\"('Cd', 'F', 'Nd', 'O', 'Ti')\",OTHERS,False\nmvc-5764,\"{'Ca': 8.0, 'Mn': 16.0, 'O': 32.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,False\nmp-1222544,\"{'Li': 4.0, 'Co': 1.0, 'Ru': 1.0, 'O': 6.0}\",\"('Co', 'Li', 'O', 'Ru')\",OTHERS,False\nmp-1029975,\"{'Al': 4.0, 'C': 6.0, 'N': 12.0}\",\"('Al', 'C', 'N')\",OTHERS,False\nmp-1199077,\"{'Ba': 4.0, 'B': 12.0, 'H': 8.0, 'O': 26.0}\",\"('B', 'Ba', 'H', 'O')\",OTHERS,False\nmp-770175,\"{'Li': 4.0, 'Mn': 6.0, 'Fe': 2.0, 'O': 16.0}\",\"('Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-865402,\"{'Tm': 3.0, 'Al': 3.0, 'Cu': 3.0}\",\"('Al', 'Cu', 'Tm')\",OTHERS,False\nmp-505802,\"{'Sn': 2.0, 'Mo': 8.0, 'O': 12.0}\",\"('Mo', 'O', 'Sn')\",OTHERS,False\nmp-1209222,\"{'Rb': 2.0, 'Lu': 2.0, 'Be': 2.0, 'F': 12.0}\",\"('Be', 'F', 'Lu', 'Rb')\",OTHERS,False\nmp-1186131,\"{'Na': 1.0, 'Dy': 3.0}\",\"('Dy', 'Na')\",OTHERS,False\nmp-24356,\"{'H': 16.0, 'N': 4.0, 'Cl': 12.0, 'Cd': 4.0}\",\"('Cd', 'Cl', 'H', 'N')\",OTHERS,False\nmp-1216388,\"{'Zr': 18.0, 'Co': 5.0, 'Sn': 4.0}\",\"('Co', 'Sn', 'Zr')\",OTHERS,False\nmp-561525,\"{'K': 6.0, 'Ga': 6.0, 'B': 6.0, 'O': 21.0}\",\"('B', 'Ga', 'K', 'O')\",OTHERS,False\nmp-555073,\"{'La': 12.0, 'As': 8.0, 'Cl': 4.0, 'O': 28.0}\",\"('As', 'Cl', 'La', 'O')\",OTHERS,False\nmp-554131,\"{'Sr': 4.0, 'Li': 4.0, 'Co': 4.0, 'F': 24.0}\",\"('Co', 'F', 'Li', 'Sr')\",OTHERS,False\nmp-762505,\"{'Ti': 3.0, 'Co': 3.0, 'Sb': 2.0, 'O': 16.0}\",\"('Co', 'O', 'Sb', 'Ti')\",OTHERS,False\nmp-1101,\"{'As': 1.0, 'Tm': 1.0}\",\"('As', 'Tm')\",OTHERS,False\nmp-27570,\"{'Cl': 16.0, 'Fe': 4.0, 'Cs': 4.0}\",\"('Cl', 'Cs', 'Fe')\",OTHERS,False\nmp-1187310,\"{'Tb': 1.0, 'Be': 1.0, 'O': 3.0}\",\"('Be', 'O', 'Tb')\",OTHERS,False\nmp-1212001,\"{'K': 12.0, 'Si': 24.0, 'H': 24.0, 'N': 44.0}\",\"('H', 'K', 'N', 'Si')\",OTHERS,False\nmp-1218980,\"{'Sm': 2.0, 'Ga': 2.0, 'Si': 2.0}\",\"('Ga', 'Si', 'Sm')\",OTHERS,False\nmp-13136,\"{'C': 1.0, 'W': 1.0}\",\"('C', 'W')\",OTHERS,False\nmvc-16045,\"{'Sr': 4.0, 'Ca': 1.0, 'Cr': 2.0, 'S': 2.0, 'O': 6.0}\",\"('Ca', 'Cr', 'O', 'S', 'Sr')\",OTHERS,False\nmp-582227,\"{'Eu': 1.0, 'Mn': 2.0, 'Sb': 2.0}\",\"('Eu', 'Mn', 'Sb')\",OTHERS,False\nmp-1237680,\"{'Li': 4.0, 'Cr': 4.0, 'O': 18.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-757440,\"{'Cr': 3.0, 'S': 6.0, 'O': 24.0}\",\"('Cr', 'O', 'S')\",OTHERS,False\nmp-530787,\"{'O': 53.0, 'Y': 6.0, 'Zr': 22.0}\",\"('O', 'Y', 'Zr')\",OTHERS,False\nmp-21153,\"{'Er': 4.0, 'Ge': 4.0, 'Ir': 4.0}\",\"('Er', 'Ge', 'Ir')\",OTHERS,False\nmp-1101284,\"{'Ti': 6.0, 'Nb': 2.0, 'O': 16.0}\",\"('Nb', 'O', 'Ti')\",OTHERS,False\nmp-1203703,\"{'Tm': 4.0, 'N': 12.0, 'O': 36.0}\",\"('N', 'O', 'Tm')\",OTHERS,False\nmp-1193375,\"{'Yb': 2.0, 'Ni': 21.0, 'B': 6.0}\",\"('B', 'Ni', 'Yb')\",OTHERS,False\nmp-25992,\"{'Ni': 6.0, 'P': 8.0, 'O': 28.0}\",\"('Ni', 'O', 'P')\",OTHERS,False\nmp-1174245,\"{'Li': 7.0, 'Co': 5.0, 'O': 12.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-840,\"{'Rh': 4.0, 'Sm': 2.0}\",\"('Rh', 'Sm')\",OTHERS,False\nmp-766870,\"{'Mn': 5.0, 'O': 9.0, 'F': 1.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1178581,\"{'Ba': 16.0, 'Ti': 12.0, 'O': 40.0}\",\"('Ba', 'O', 'Ti')\",OTHERS,False\nmp-707839,\"{'Si': 2.0, 'H': 28.0, 'O': 8.0, 'F': 12.0}\",\"('F', 'H', 'O', 'Si')\",OTHERS,False\nmp-4689,\"{'Al': 28.0, 'Fe': 4.0, 'Cu': 8.0}\",\"('Al', 'Cu', 'Fe')\",OTHERS,False\nmvc-10589,\"{'Ba': 4.0, 'Mg': 4.0, 'Mo': 4.0, 'F': 28.0}\",\"('Ba', 'F', 'Mg', 'Mo')\",OTHERS,False\nmp-675372,\"{'Ca': 2.0, 'Zr': 8.0, 'O': 18.0}\",\"('Ca', 'O', 'Zr')\",OTHERS,False\nmp-755243,\"{'Li': 5.0, 'Cu': 1.0, 'S': 1.0, 'O': 2.0}\",\"('Cu', 'Li', 'O', 'S')\",OTHERS,False\nmp-1178259,\"{'Fe': 4.0, 'Co': 12.0, 'O': 32.0}\",\"('Co', 'Fe', 'O')\",OTHERS,False\nmp-1008823,\"{'Os': 1.0, 'N': 2.0}\",\"('N', 'Os')\",OTHERS,False\nmp-1189981,\"{'Zr': 10.0, 'Zn': 2.0, 'Sn': 6.0}\",\"('Sn', 'Zn', 'Zr')\",OTHERS,False\nmp-1227768,\"{'Ba': 1.0, 'Sr': 2.0, 'P': 2.0, 'O': 8.0}\",\"('Ba', 'O', 'P', 'Sr')\",OTHERS,False\nmp-653838,\"{'Zr': 4.0, 'Fe': 48.0, 'Si': 8.0, 'B': 4.0}\",\"('B', 'Fe', 'Si', 'Zr')\",OTHERS,False\nmp-1182142,\"{'Ba': 2.0, 'Al': 4.0, 'O': 12.0}\",\"('Al', 'Ba', 'O')\",OTHERS,False\nmp-32308,\"{'O': 12.0, 'Ni': 2.0, 'Ta': 4.0}\",\"('Ni', 'O', 'Ta')\",OTHERS,False\nmp-684911,\"{'Sm': 16.0, 'Te': 24.0}\",\"('Sm', 'Te')\",OTHERS,False\nmp-1219038,\"{'Sm': 1.0, 'U': 1.0, 'Te': 6.0}\",\"('Sm', 'Te', 'U')\",OTHERS,False\nmp-1183962,\"{'Eu': 2.0, 'Cd': 1.0, 'Pb': 1.0}\",\"('Cd', 'Eu', 'Pb')\",OTHERS,False\nmp-1097234,\"{'V': 1.0, 'Cr': 1.0, 'W': 2.0}\",\"('Cr', 'V', 'W')\",OTHERS,False\nmp-1183799,\"{'Dy': 1.0, 'Ho': 1.0, 'Zn': 2.0}\",\"('Dy', 'Ho', 'Zn')\",OTHERS,False\nmp-760939,\"{'Cu': 6.0, 'O': 1.0, 'F': 11.0}\",\"('Cu', 'F', 'O')\",OTHERS,False\nmp-1232092,\"{'Sm': 8.0, 'Mg': 4.0, 'S': 16.0}\",\"('Mg', 'S', 'Sm')\",OTHERS,False\nmvc-5962,\"{'Ca': 2.0, 'Ta': 1.0, 'W': 1.0, 'O': 6.0}\",\"('Ca', 'O', 'Ta', 'W')\",OTHERS,False\nmp-13323,\"{'O': 6.0, 'Nb': 1.0, 'Ba': 2.0, 'Eu': 1.0}\",\"('Ba', 'Eu', 'Nb', 'O')\",OTHERS,False\nmp-540879,\"{'Eu': 4.0, 'B': 8.0, 'O': 16.0}\",\"('B', 'Eu', 'O')\",OTHERS,False\nmp-10208,\"{'P': 4.0, 'Ni': 2.0, 'Mo': 2.0}\",\"('Mo', 'Ni', 'P')\",OTHERS,False\nmp-1193690,\"{'Ge': 7.0, 'H': 1.0, 'O': 20.0}\",\"('Ge', 'H', 'O')\",OTHERS,False\nmp-1201385,\"{'Ba': 6.0, 'Fe': 52.0, 'O': 82.0}\",\"('Ba', 'Fe', 'O')\",OTHERS,False\nmp-1105702,\"{'Zr': 8.0, 'Nb': 2.0, 'Ga': 6.0}\",\"('Ga', 'Nb', 'Zr')\",OTHERS,False\nmp-1097724,\"{'Na': 4.0, 'W': 4.0, 'O': 10.0}\",\"('Na', 'O', 'W')\",OTHERS,False\nmp-766541,\"{'P': 10.0, 'W': 8.0, 'O': 48.0}\",\"('O', 'P', 'W')\",OTHERS,False\nmp-1245342,\"{'Li': 2.0, 'Lu': 2.0, 'S': 4.0, 'O': 16.0}\",\"('Li', 'Lu', 'O', 'S')\",OTHERS,False\nmp-560656,\"{'Ca': 20.0, 'Te': 20.0, 'O': 60.0}\",\"('Ca', 'O', 'Te')\",OTHERS,False\nmp-721094,\"{'Na': 5.0, 'Ca': 2.0, 'Ce': 3.0, 'Ti': 8.0, 'Nb': 2.0, 'O': 30.0}\",\"('Ca', 'Ce', 'Na', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-534778,\"{'Ca': 4.0, 'Na': 2.0, 'O': 36.0, 'Sc': 2.0, 'Si': 12.0, 'Zn': 4.0}\",\"('Ca', 'Na', 'O', 'Sc', 'Si', 'Zn')\",OTHERS,False\nmp-542654,\"{'In': 9.0, 'S': 15.0, 'Rb': 3.0}\",\"('In', 'Rb', 'S')\",OTHERS,False\nmp-2977,\"{'Cu': 1.0, 'Ag': 1.0, 'Te': 2.0}\",\"('Ag', 'Cu', 'Te')\",OTHERS,False\nmp-1218356,\"{'Sr': 1.0, 'Al': 1.0, 'Ga': 1.0}\",\"('Al', 'Ga', 'Sr')\",OTHERS,False\nmp-4586,\"{'Li': 2.0, 'Al': 2.0, 'Te': 4.0}\",\"('Al', 'Li', 'Te')\",OTHERS,False\nmp-27376,\"{'O': 23.0, 'Si': 10.0, 'Rb': 6.0}\",\"('O', 'Rb', 'Si')\",OTHERS,False\nmp-706622,\"{'P': 4.0, 'H': 24.0, 'N': 8.0, 'O': 8.0}\",\"('H', 'N', 'O', 'P')\",OTHERS,False\nmp-1171010,\"{'Ca': 1.0, 'Fe': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Ca', 'Fe', 'O', 'Si')\",OTHERS,False\nmp-1176721,\"{'Li': 1.0, 'Fe': 5.0, 'O': 5.0, 'F': 1.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1186598,\"{'Pm': 1.0, 'Ho': 1.0, 'Ir': 2.0}\",\"('Ho', 'Ir', 'Pm')\",OTHERS,False\nmp-1207138,\"{'Sm': 1.0, 'Eu': 2.0, 'Ta': 1.0, 'O': 6.0}\",\"('Eu', 'O', 'Sm', 'Ta')\",OTHERS,False\nmp-605406,\"{'Rb': 2.0, 'U': 4.0, 'H': 10.0, 'C': 8.0, 'O': 30.0}\",\"('C', 'H', 'O', 'Rb', 'U')\",OTHERS,False\nmp-1229046,\"{'Al': 1.0, 'In': 1.0, 'Cu': 2.0, 'Se': 4.0}\",\"('Al', 'Cu', 'In', 'Se')\",OTHERS,False\nmp-1077939,\"{'Cr': 1.0, 'Te': 4.0, 'Rh': 2.0}\",\"('Cr', 'Rh', 'Te')\",OTHERS,False\nmp-1220441,\"{'Nb': 4.0, 'Rh': 1.0}\",\"('Nb', 'Rh')\",OTHERS,False\nmp-1080124,\"{'Cd': 2.0, 'Cl': 8.0}\",\"('Cd', 'Cl')\",OTHERS,False\nmp-27887,\"{'Si': 8.0, 'P': 12.0, 'Ba': 6.0}\",\"('Ba', 'P', 'Si')\",OTHERS,False\nmp-1199218,\"{'Li': 12.0, 'As': 28.0, 'H': 156.0, 'N': 52.0}\",\"('As', 'H', 'Li', 'N')\",OTHERS,False\nmp-1187266,\"{'Tb': 3.0, 'Au': 1.0}\",\"('Au', 'Tb')\",OTHERS,False\nmp-625282,\"{'Fe': 4.0, 'H': 4.0, 'O': 8.0}\",\"('Fe', 'H', 'O')\",OTHERS,False\nmp-1114539,\"{'K': 1.0, 'Rb': 2.0, 'In': 1.0, 'Br': 6.0}\",\"('Br', 'In', 'K', 'Rb')\",OTHERS,False\nmp-746820,\"{'Ni': 1.0, 'H': 6.0, 'S': 2.0, 'O': 12.0}\",\"('H', 'Ni', 'O', 'S')\",OTHERS,False\nmp-958,\"{'Cr': 6.0, 'Rh': 2.0}\",\"('Cr', 'Rh')\",OTHERS,False\nmp-753885,\"{'Li': 4.0, 'Cr': 2.0, 'Co': 3.0, 'Sb': 3.0, 'O': 16.0}\",\"('Co', 'Cr', 'Li', 'O', 'Sb')\",OTHERS,False\nmp-1183424,\"{'Be': 3.0, 'Ge': 1.0}\",\"('Be', 'Ge')\",OTHERS,False\nmp-1222801,\"{'La': 1.0, 'Nd': 1.0, 'Cu': 1.0, 'O': 4.0}\",\"('Cu', 'La', 'Nd', 'O')\",OTHERS,False\nmp-1194348,\"{'Eu': 12.0, 'Ga': 4.0, 'P': 12.0}\",\"('Eu', 'Ga', 'P')\",OTHERS,False\nmp-772241,\"{'Li': 6.0, 'Mn': 2.0, 'Al': 4.0, 'O': 12.0}\",\"('Al', 'Li', 'Mn', 'O')\",OTHERS,False\nmvc-14316,\"{'Ca': 2.0, 'Fe': 2.0, 'F': 10.0}\",\"('Ca', 'F', 'Fe')\",OTHERS,False\nmp-3808,\"{'O': 4.0, 'K': 2.0, 'U': 1.0}\",\"('K', 'O', 'U')\",OTHERS,False\nmp-1190793,\"{'P': 4.0, 'N': 4.0, 'O': 16.0}\",\"('N', 'O', 'P')\",OTHERS,False\nmp-1214797,\"{'Ba': 4.0, 'Er': 2.0, 'Re': 2.0, 'O': 12.0}\",\"('Ba', 'Er', 'O', 'Re')\",OTHERS,False\nmp-1197539,\"{'K': 12.0, 'As': 4.0, 'Se': 16.0}\",\"('As', 'K', 'Se')\",OTHERS,False\nmp-1227902,\"{'Ca': 12.0, 'Al': 4.0, 'Fe': 4.0, 'Si': 12.0, 'O': 48.0}\",\"('Al', 'Ca', 'Fe', 'O', 'Si')\",OTHERS,False\nmp-540439,\"{'Mn': 2.0, 'P': 6.0, 'O': 18.0}\",\"('Mn', 'O', 'P')\",OTHERS,False\nmp-510240,\"{'Rb': 4.0, 'Ag': 8.0, 'S': 6.0}\",\"('Ag', 'Rb', 'S')\",OTHERS,False\nmvc-10945,\"{'Ca': 4.0, 'V': 2.0, 'N': 6.0}\",\"('Ca', 'N', 'V')\",OTHERS,False\nmvc-4438,\"{'Mg': 12.0, 'Co': 8.0, 'Ge': 12.0, 'O': 48.0}\",\"('Co', 'Ge', 'Mg', 'O')\",OTHERS,False\nmp-767412,\"{'Li': 3.0, 'Co': 4.0, 'S': 8.0}\",\"('Co', 'Li', 'S')\",OTHERS,False\nmp-1210026,\"{'Nd': 10.0, 'Ge': 6.0, 'O': 26.0}\",\"('Ge', 'Nd', 'O')\",OTHERS,False\nmp-865184,\"{'Li': 1.0, 'Sc': 1.0, 'Pd': 2.0}\",\"('Li', 'Pd', 'Sc')\",OTHERS,False\nmp-769030,\"{'Bi': 20.0, 'B': 4.0, 'O': 40.0}\",\"('B', 'Bi', 'O')\",OTHERS,False\nmp-608469,\"{'Co': 8.0, 'C': 32.0, 'O': 32.0}\",\"('C', 'Co', 'O')\",OTHERS,False\nmp-1212594,\"{'In': 12.0, 'Te': 12.0, 'Br': 4.0}\",\"('Br', 'In', 'Te')\",OTHERS,False\nmp-1184962,\"{'K': 1.0, 'Cd': 3.0}\",\"('Cd', 'K')\",OTHERS,False\nmp-1200758,\"{'Ba': 12.0, 'V': 8.0, 'Se': 16.0, 'O': 64.0}\",\"('Ba', 'O', 'Se', 'V')\",OTHERS,False\nmp-560043,\"{'K': 1.0, 'Sb': 4.0, 'F': 13.0}\",\"('F', 'K', 'Sb')\",OTHERS,False\nmp-645189,\"{'Cs': 2.0, 'K': 2.0, 'Pt': 12.0, 'S': 12.0, 'O': 56.0}\",\"('Cs', 'K', 'O', 'Pt', 'S')\",OTHERS,False\nmp-1184478,{'In': 1.0},\"('In',)\",OTHERS,False\nmp-1039462,\"{'Ca': 4.0, 'Mg': 2.0}\",\"('Ca', 'Mg')\",OTHERS,False\nmp-1222929,\"{'La': 1.0, 'Al': 1.0, 'Ni': 4.0}\",\"('Al', 'La', 'Ni')\",OTHERS,False\nmvc-5816,\"{'Co': 8.0, 'O': 16.0}\",\"('Co', 'O')\",OTHERS,False\nmp-1226531,\"{'Ce': 1.0, 'Si': 1.0, 'B': 1.0, 'Ir': 3.0}\",\"('B', 'Ce', 'Ir', 'Si')\",OTHERS,False\nmp-1096308,\"{'Al': 1.0, 'Fe': 1.0, 'Ru': 2.0}\",\"('Al', 'Fe', 'Ru')\",OTHERS,False\nmp-1185441,\"{'Li': 1.0, 'Sm': 2.0, 'Ga': 1.0}\",\"('Ga', 'Li', 'Sm')\",OTHERS,False\nmp-1208525,\"{'Sr': 2.0, 'Y': 1.0, 'Cu': 2.0, 'Pb': 1.0, 'O': 7.0}\",\"('Cu', 'O', 'Pb', 'Sr', 'Y')\",OTHERS,False\nmvc-16754,\"{'Y': 2.0, 'Ti': 4.0, 'O': 8.0}\",\"('O', 'Ti', 'Y')\",OTHERS,False\nmp-1218581,\"{'Sr': 1.0, 'Ca': 3.0, 'V': 4.0, 'O': 12.0}\",\"('Ca', 'O', 'Sr', 'V')\",OTHERS,False\nmp-34355,\"{'As': 13.0, 'Li': 31.0, 'Zr': 2.0}\",\"('As', 'Li', 'Zr')\",OTHERS,False\nmp-867673,\"{'Na': 3.0, 'Pt': 12.0, 'O': 16.0}\",\"('Na', 'O', 'Pt')\",OTHERS,False\nmp-1187640,\"{'Tm': 5.0, 'Mg': 1.0}\",\"('Mg', 'Tm')\",OTHERS,False\nmp-1246700,\"{'Ca': 4.0, 'Ni': 4.0, 'S': 2.0, 'F': 12.0}\",\"('Ca', 'F', 'Ni', 'S')\",OTHERS,False\nmp-985477,\"{'Al': 8.0, 'Tl': 8.0, 'S': 16.0}\",\"('Al', 'S', 'Tl')\",OTHERS,False\nmp-1111618,\"{'K': 2.0, 'Na': 1.0, 'Sc': 1.0, 'I': 6.0}\",\"('I', 'K', 'Na', 'Sc')\",OTHERS,False\nmp-1147536,\"{'Ca': 2.0, 'Cu': 1.0, 'S': 2.0, 'O': 2.0}\",\"('Ca', 'Cu', 'O', 'S')\",OTHERS,False\nmp-1535,\"{'Si': 2.0, 'Tb': 1.0}\",\"('Si', 'Tb')\",OTHERS,False\nmp-13863,\"{'O': 12.0, 'Ge': 4.0, 'Ba': 4.0}\",\"('Ba', 'Ge', 'O')\",OTHERS,False\nmp-1187683,\"{'U': 3.0, 'Hg': 1.0}\",\"('Hg', 'U')\",OTHERS,False\nmp-1221701,\"{'Mn': 1.0, 'V': 1.0, 'S': 2.0}\",\"('Mn', 'S', 'V')\",OTHERS,False\nmp-1100530,\"{'Li': 9.0, 'Mn': 7.0, 'O': 16.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-30828,\"{'Sr': 8.0, 'Pb': 4.0}\",\"('Pb', 'Sr')\",OTHERS,False\nmp-861974,\"{'Pa': 1.0, 'Cd': 1.0, 'Pt': 2.0}\",\"('Cd', 'Pa', 'Pt')\",OTHERS,False\nmp-1239191,\"{'Cs': 4.0, 'Cr': 8.0, 'S': 16.0}\",\"('Cr', 'Cs', 'S')\",OTHERS,False\nmp-1199915,\"{'Lu': 8.0, 'B': 24.0, 'Os': 4.0}\",\"('B', 'Lu', 'Os')\",OTHERS,False\nmp-898,\"{'Al': 15.0, 'Ho': 5.0}\",\"('Al', 'Ho')\",OTHERS,False\nmp-685503,\"{'K': 4.0, 'Zr': 48.0, 'I': 112.0}\",\"('I', 'K', 'Zr')\",OTHERS,False\nmp-11489,\"{'Li': 3.0, 'Pd': 1.0}\",\"('Li', 'Pd')\",OTHERS,False\nmp-1175220,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-545436,\"{'O': 6.0, 'Bi': 1.0, 'Ba': 2.0, 'Yb': 1.0}\",\"('Ba', 'Bi', 'O', 'Yb')\",OTHERS,False\nmp-22394,\"{'C': 1.0, 'Ru': 3.0, 'Th': 1.0}\",\"('C', 'Ru', 'Th')\",OTHERS,False\nmp-675748,\"{'Zn': 2.0, 'Ge': 1.0, 'S': 4.0}\",\"('Ge', 'S', 'Zn')\",OTHERS,False\nmp-1211431,\"{'La': 4.0, 'Cu': 20.0, 'Sn': 4.0}\",\"('Cu', 'La', 'Sn')\",OTHERS,False\nmp-581345,\"{'Nd': 24.0, 'Ge': 24.0, 'O': 84.0}\",\"('Ge', 'Nd', 'O')\",OTHERS,False\nmp-1187948,\"{'Zn': 6.0, 'Ni': 2.0}\",\"('Ni', 'Zn')\",OTHERS,False\nmvc-12644,\"{'Ca': 2.0, 'Ni': 4.0, 'O': 8.0}\",\"('Ca', 'Ni', 'O')\",OTHERS,False\nmp-4449,\"{'O': 16.0, 'Se': 4.0, 'Tl': 8.0}\",\"('O', 'Se', 'Tl')\",OTHERS,False\nmp-1183967,\"{'Ga': 1.0, 'Ag': 3.0}\",\"('Ag', 'Ga')\",OTHERS,False\nmp-1228179,\"{'Ba': 4.0, 'Pr': 1.0, 'Dy': 1.0, 'Cu': 6.0, 'O': 14.0}\",\"('Ba', 'Cu', 'Dy', 'O', 'Pr')\",OTHERS,False\nmp-1221933,\"{'Mn': 3.0, 'Zn': 9.0, 'P': 8.0, 'O': 32.0}\",\"('Mn', 'O', 'P', 'Zn')\",OTHERS,False\nmp-709031,\"{'Al': 8.0, 'P': 8.0, 'H': 22.0, 'C': 6.0, 'N': 2.0, 'O': 36.0}\",\"('Al', 'C', 'H', 'N', 'O', 'P')\",OTHERS,False\nmp-26618,\"{'Li': 4.0, 'O': 16.0, 'P': 4.0, 'Cr': 2.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1178754,\"{'W': 4.0, 'O': 14.0}\",\"('O', 'W')\",OTHERS,False\nmp-23179,\"{'Ni': 4.0, 'Bi': 12.0}\",\"('Bi', 'Ni')\",OTHERS,False\nmp-1187262,\"{'Sr': 3.0, 'U': 1.0}\",\"('Sr', 'U')\",OTHERS,False\nmp-11407,\"{'Ga': 1.0, 'Pt': 3.0}\",\"('Ga', 'Pt')\",OTHERS,False\nmp-1210237,\"{'Na': 1.0, 'Eu': 1.0, 'Cu': 2.0, 'F': 8.0}\",\"('Cu', 'Eu', 'F', 'Na')\",OTHERS,False\nmp-554002,\"{'Al': 4.0, 'H': 12.0, 'O': 12.0}\",\"('Al', 'H', 'O')\",OTHERS,False\nmp-1207916,\"{'Tm': 12.0, 'Sc': 8.0, 'Al': 12.0, 'O': 48.0}\",\"('Al', 'O', 'Sc', 'Tm')\",OTHERS,False\nmp-1216500,\"{'Zr': 2.0, 'Mn': 12.0, 'Ga': 1.0, 'Sn': 11.0}\",\"('Ga', 'Mn', 'Sn', 'Zr')\",OTHERS,False\nmp-1217476,\"{'Tb': 1.0, 'Si': 2.0, 'Ir': 1.0, 'Rh': 1.0}\",\"('Ir', 'Rh', 'Si', 'Tb')\",OTHERS,False\nmp-755045,\"{'Li': 1.0, 'Ni': 2.0, 'O': 4.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmp-1195190,\"{'Ba': 16.0, 'Fe': 12.0, 'Se': 24.0, 'F': 16.0}\",\"('Ba', 'F', 'Fe', 'Se')\",OTHERS,False\nmp-10714,\"{'C': 1.0, 'Rh': 3.0, 'Tm': 1.0}\",\"('C', 'Rh', 'Tm')\",OTHERS,False\nmp-1104672,\"{'Rb': 1.0, 'Hg': 3.0, 'N': 1.0, 'Cl': 8.0, 'O': 2.0}\",\"('Cl', 'Hg', 'N', 'O', 'Rb')\",OTHERS,False\nmp-1077241,\"{'Y': 2.0, 'Cu': 4.0}\",\"('Cu', 'Y')\",OTHERS,False\nmp-1200258,\"{'Hg': 4.0, 'S': 8.0, 'O': 28.0}\",\"('Hg', 'O', 'S')\",OTHERS,False\nmp-1080723,\"{'Hf': 2.0, 'Cu': 2.0, 'Ge': 2.0, 'As': 2.0}\",\"('As', 'Cu', 'Ge', 'Hf')\",OTHERS,False\nmp-1112618,\"{'Cs': 2.0, 'Sm': 1.0, 'Cu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Cu', 'Sm')\",OTHERS,False\nmp-1208097,\"{'V': 8.0, 'S': 12.0, 'N': 8.0, 'O': 48.0}\",\"('N', 'O', 'S', 'V')\",OTHERS,False\nmp-4041,\"{'Al': 2.0, 'Ge': 2.0, 'Yb': 1.0}\",\"('Al', 'Ge', 'Yb')\",OTHERS,False\nmp-754467,\"{'Li': 1.0, 'V': 2.0, 'O': 3.0, 'F': 3.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-6603,\"{'O': 12.0, 'Sr': 4.0, 'Ce': 2.0, 'Ir': 2.0}\",\"('Ce', 'Ir', 'O', 'Sr')\",OTHERS,False\nmp-559961,\"{'Tl': 8.0, 'Se': 4.0, 'O': 16.0}\",\"('O', 'Se', 'Tl')\",OTHERS,False\nmp-1196648,\"{'Nd': 12.0, 'Zn': 2.0, 'Fe': 26.0}\",\"('Fe', 'Nd', 'Zn')\",OTHERS,False\nmp-1209139,\"{'Sb': 4.0, 'Te': 7.0, 'Pb': 1.0}\",\"('Pb', 'Sb', 'Te')\",OTHERS,False\nmp-1178445,\"{'Cr': 8.0, 'P': 16.0, 'O': 48.0}\",\"('Cr', 'O', 'P')\",OTHERS,False\nmp-1208558,\"{'Te': 2.0, 'Br': 12.0, 'O': 16.0}\",\"('Br', 'O', 'Te')\",OTHERS,False\nmp-998592,\"{'Rb': 4.0, 'Ca': 4.0, 'I': 12.0}\",\"('Ca', 'I', 'Rb')\",OTHERS,False\nmp-606691,\"{'K': 4.0, 'U': 8.0, 'P': 12.0, 'O': 56.0}\",\"('K', 'O', 'P', 'U')\",OTHERS,False\nmp-768598,\"{'Na': 4.0, 'Ni': 2.0, 'C': 2.0, 'S': 2.0, 'O': 14.0}\",\"('C', 'Na', 'Ni', 'O', 'S')\",OTHERS,False\nmp-10108,\"{'P': 1.0, 'Np': 1.0}\",\"('Np', 'P')\",OTHERS,False\nmp-1191394,\"{'Li': 8.0, 'Nd': 7.0, 'Ge': 10.0}\",\"('Ge', 'Li', 'Nd')\",OTHERS,False\nmp-27805,\"{'Si': 4.0, 'S': 20.0, 'Ba': 12.0}\",\"('Ba', 'S', 'Si')\",OTHERS,False\nmp-4187,\"{'N': 4.0, 'O': 2.0, 'Ge': 4.0}\",\"('Ge', 'N', 'O')\",OTHERS,False\nmp-1069477,\"{'Gd': 1.0, 'Si': 3.0, 'Ir': 1.0}\",\"('Gd', 'Ir', 'Si')\",OTHERS,False\nmp-754751,\"{'Li': 3.0, 'Nb': 3.0, 'Te': 1.0, 'O': 12.0}\",\"('Li', 'Nb', 'O', 'Te')\",OTHERS,False\nmp-510006,\"{'Pu': 4.0, 'P': 8.0, 'K': 12.0, 'S': 32.0}\",\"('K', 'P', 'Pu', 'S')\",OTHERS,False\nmp-756583,\"{'Li': 4.0, 'V': 5.0, 'Cu': 1.0, 'Cl': 1.0, 'O': 15.0}\",\"('Cl', 'Cu', 'Li', 'O', 'V')\",OTHERS,False\nmp-22569,\"{'O': 16.0, 'P': 4.0, 'In': 4.0}\",\"('In', 'O', 'P')\",OTHERS,False\nmp-1180367,\"{'Nd': 4.0, 'C': 12.0, 'O': 40.0}\",\"('C', 'Nd', 'O')\",OTHERS,False\nmp-973114,\"{'Ho': 1.0, 'Lu': 1.0, 'Ru': 2.0}\",\"('Ho', 'Lu', 'Ru')\",OTHERS,False\nmp-504532,\"{'O': 44.0, 'As': 8.0, 'W': 8.0}\",\"('As', 'O', 'W')\",OTHERS,False\nmp-1214361,\"{'Ca': 4.0, 'Mn': 6.0, 'Si': 6.0, 'H': 6.0, 'O': 28.0}\",\"('Ca', 'H', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1185110,\"{'K': 3.0, 'Rh': 1.0}\",\"('K', 'Rh')\",OTHERS,False\nmp-768883,\"{'Sn': 4.0, 'S': 6.0, 'O': 24.0}\",\"('O', 'S', 'Sn')\",OTHERS,False\nmp-1223761,\"{'La': 2.0, 'Ga': 7.0, 'Au': 1.0}\",\"('Au', 'Ga', 'La')\",OTHERS,False\nmp-1189317,\"{'Mg': 4.0, 'Cr': 2.0, 'B': 4.0, 'Ir': 10.0}\",\"('B', 'Cr', 'Ir', 'Mg')\",OTHERS,False\nmp-865202,\"{'Tm': 1.0, 'Cd': 1.0, 'Pt': 2.0}\",\"('Cd', 'Pt', 'Tm')\",OTHERS,False\nmp-2497,\"{'Zn': 1.0, 'Gd': 1.0}\",\"('Gd', 'Zn')\",OTHERS,False\nmp-29970,\"{'O': 56.0, 'Sb': 20.0, 'Cs': 12.0}\",\"('Cs', 'O', 'Sb')\",OTHERS,False\nmp-1214469,\"{'Ca': 3.0, 'Cd': 3.0, 'N': 12.0, 'O': 36.0}\",\"('Ca', 'Cd', 'N', 'O')\",OTHERS,False\nmp-1206320,\"{'Rb': 2.0, 'Sc': 2.0, 'Cl': 6.0}\",\"('Cl', 'Rb', 'Sc')\",OTHERS,False\nmp-27714,\"{'H': 12.0, 'O': 4.0, 'F': 4.0}\",\"('F', 'H', 'O')\",OTHERS,False\nmp-644443,\"{'Ca': 2.0, 'P': 2.0, 'H': 4.0, 'O': 12.0}\",\"('Ca', 'H', 'O', 'P')\",OTHERS,False\nmp-1034881,\"{'Cs': 1.0, 'Na': 1.0, 'Mg': 14.0, 'O': 15.0}\",\"('Cs', 'Mg', 'Na', 'O')\",OTHERS,False\nmp-757241,\"{'V': 10.0, 'W': 6.0, 'O': 40.0}\",\"('O', 'V', 'W')\",OTHERS,False\nmp-1245853,\"{'Ba': 6.0, 'Y': 2.0, 'N': 6.0}\",\"('Ba', 'N', 'Y')\",OTHERS,False\nmp-1103677,\"{'Tb': 3.0, 'Ga': 9.0, 'Pt': 2.0}\",\"('Ga', 'Pt', 'Tb')\",OTHERS,False\nmp-1246559,\"{'Dy': 2.0, 'Mg': 2.0, 'Cr': 2.0, 'S': 8.0}\",\"('Cr', 'Dy', 'Mg', 'S')\",OTHERS,False\nmp-865483,\"{'Li': 2.0, 'Gd': 1.0, 'In': 1.0}\",\"('Gd', 'In', 'Li')\",OTHERS,False\nmp-1183768,\"{'Ce': 1.0, 'Nd': 1.0, 'Hg': 2.0}\",\"('Ce', 'Hg', 'Nd')\",OTHERS,False\nmp-779893,\"{'Dy': 4.0, 'P': 20.0, 'O': 56.0}\",\"('Dy', 'O', 'P')\",OTHERS,False\nmp-1099956,\"{'K': 4.0, 'Na': 28.0, 'V': 24.0, 'Mo': 8.0, 'O': 80.0}\",\"('K', 'Mo', 'Na', 'O', 'V')\",OTHERS,False\nmp-756525,\"{'Mn': 3.0, 'Cu': 1.0, 'O': 8.0}\",\"('Cu', 'Mn', 'O')\",OTHERS,False\nmp-1096407,\"{'Al': 1.0, 'Ni': 1.0, 'Pt': 2.0}\",\"('Al', 'Ni', 'Pt')\",OTHERS,False\nmp-680331,\"{'Cd': 4.0, 'Hg': 12.0, 'C': 24.0, 'S': 24.0, 'N': 24.0, 'Cl': 8.0}\",\"('C', 'Cd', 'Cl', 'Hg', 'N', 'S')\",OTHERS,False\nmp-557634,\"{'Na': 2.0, 'V': 6.0, 'P': 6.0, 'O': 24.0}\",\"('Na', 'O', 'P', 'V')\",OTHERS,False\nmvc-545,\"{'Ba': 1.0, 'Ca': 1.0, 'Ag': 4.0, 'O': 8.0}\",\"('Ag', 'Ba', 'Ca', 'O')\",OTHERS,False\nmp-1173947,\"{'Li': 6.0, 'Mn': 4.0, 'O': 10.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1245883,\"{'Sc': 16.0, 'Te': 12.0, 'N': 8.0}\",\"('N', 'Sc', 'Te')\",OTHERS,False\nmp-1185192,\"{'Li': 3.0, 'La': 1.0}\",\"('La', 'Li')\",OTHERS,False\nmp-1215156,\"{'Al': 18.0, 'P': 18.0, 'H': 42.0, 'O': 72.0}\",\"('Al', 'H', 'O', 'P')\",OTHERS,False\nmp-774293,\"{'Li': 8.0, 'Ti': 8.0, 'Mn': 8.0, 'Co': 2.0, 'O': 36.0}\",\"('Co', 'Li', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-561261,\"{'Ce': 8.0, 'P': 8.0, 'S': 32.0}\",\"('Ce', 'P', 'S')\",OTHERS,False\nmp-623261,\"{'Pr': 4.0, 'Ga': 4.0, 'Co': 4.0}\",\"('Co', 'Ga', 'Pr')\",OTHERS,False\nmp-777233,\"{'Ba': 4.0, 'Y': 4.0, 'F': 20.0}\",\"('Ba', 'F', 'Y')\",OTHERS,False\nmp-755337,\"{'Li': 4.0, 'Nb': 1.0, 'Fe': 3.0, 'O': 8.0}\",\"('Fe', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-974606,\"{'Re': 2.0, 'H': 12.0, 'C': 2.0, 'N': 6.0, 'O': 8.0}\",\"('C', 'H', 'N', 'O', 'Re')\",OTHERS,False\nmp-19764,\"{'In': 1.0, 'Pr': 3.0}\",\"('In', 'Pr')\",OTHERS,False\nmp-1112421,\"{'K': 2.0, 'Pr': 1.0, 'Au': 1.0, 'Cl': 6.0}\",\"('Au', 'Cl', 'K', 'Pr')\",OTHERS,False\nmp-758453,\"{'Na': 8.0, 'P': 8.0, 'H': 16.0, 'N': 8.0, 'O': 20.0}\",\"('H', 'N', 'Na', 'O', 'P')\",OTHERS,False\nmp-1215853,\"{'Yb': 1.0, 'Tm': 2.0, 'Se': 4.0}\",\"('Se', 'Tm', 'Yb')\",OTHERS,False\nmp-1176482,\"{'Mn': 3.0, 'Cr': 2.0, 'Fe': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Fe', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1245073,\"{'Cr': 8.0, 'Fe': 24.0, 'O': 48.0}\",\"('Cr', 'Fe', 'O')\",OTHERS,False\nmp-1245737,\"{'Na': 2.0, 'Cr': 2.0, 'N': 2.0}\",\"('Cr', 'N', 'Na')\",OTHERS,False\nmp-849745,\"{'Li': 12.0, 'Mn': 8.0, 'P': 16.0, 'O': 56.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-672187,\"{'Pr': 4.0, 'Pd': 4.0, 'Pb': 2.0}\",\"('Pb', 'Pd', 'Pr')\",OTHERS,False\nmp-1185197,\"{'Li': 6.0, 'Ho': 2.0}\",\"('Ho', 'Li')\",OTHERS,False\nmp-1014005,\"{'Mn': 2.0, 'Si': 1.0, 'Rh': 1.0}\",\"('Mn', 'Rh', 'Si')\",OTHERS,False\nmp-4989,\"{'Cr': 3.0, 'Ni': 3.0, 'As': 3.0}\",\"('As', 'Cr', 'Ni')\",OTHERS,False\nmp-1078429,\"{'Eu': 2.0, 'Ga': 6.0, 'Pd': 2.0}\",\"('Eu', 'Ga', 'Pd')\",OTHERS,False\nmp-766132,\"{'Li': 8.0, 'Zr': 4.0, 'Fe': 4.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'P', 'Zr')\",OTHERS,False\nmp-21660,\"{'Co': 10.0, 'Ga': 20.0, 'Hf': 10.0}\",\"('Co', 'Ga', 'Hf')\",OTHERS,False\nmp-1078398,\"{'Ce': 2.0, 'As': 2.0, 'O': 6.0}\",\"('As', 'Ce', 'O')\",OTHERS,False\nmp-20961,\"{'S': 8.0, 'Pd': 6.0, 'Eu': 2.0}\",\"('Eu', 'Pd', 'S')\",OTHERS,False\nmp-1033751,\"{'Mg': 14.0, 'Bi': 1.0, 'C': 1.0, 'O': 16.0}\",\"('Bi', 'C', 'Mg', 'O')\",OTHERS,False\nmp-1658,\"{'O': 24.0, 'Tl': 16.0}\",\"('O', 'Tl')\",OTHERS,False\nmp-767562,\"{'Na': 4.0, 'Lu': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Lu', 'Na', 'O', 'P')\",OTHERS,False\nmp-30626,\"{'Zn': 12.0, 'Dy': 4.0}\",\"('Dy', 'Zn')\",OTHERS,False\nmp-1209407,\"{'Pr': 4.0, 'Re': 6.0, 'O': 19.0}\",\"('O', 'Pr', 'Re')\",OTHERS,False\nmp-1188269,\"{'Pb': 4.0, 'S': 8.0, 'N': 8.0}\",\"('N', 'Pb', 'S')\",OTHERS,False\nmp-7979,\"{'F': 6.0, 'K': 2.0, 'Pd': 1.0}\",\"('F', 'K', 'Pd')\",OTHERS,False\nmp-849092,\"{'Ni': 2.0, 'S': 4.0}\",\"('Ni', 'S')\",OTHERS,False\nmp-554852,\"{'Y': 4.0, 'Te': 10.0, 'O': 26.0}\",\"('O', 'Te', 'Y')\",OTHERS,False\nmp-1223138,\"{'La': 4.0, 'Ti': 2.0, 'Mn': 2.0, 'O': 12.0}\",\"('La', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-1245321,\"{'Ti': 30.0, 'O': 60.0}\",\"('O', 'Ti')\",OTHERS,False\nmp-697789,\"{'Li': 2.0, 'Cr': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1190173,\"{'Cu': 2.0, 'Pb': 6.0, 'Cl': 4.0, 'O': 8.0}\",\"('Cl', 'Cu', 'O', 'Pb')\",OTHERS,False\nmp-1173113,\"{'Tb': 10.0, 'Yb': 1.0, 'Se': 16.0}\",\"('Se', 'Tb', 'Yb')\",OTHERS,False\nmp-643004,\"{'Sr': 1.0, 'Mg': 2.0, 'Fe': 1.0, 'H': 8.0}\",\"('Fe', 'H', 'Mg', 'Sr')\",OTHERS,False\nmp-1223901,\"{'In': 1.0, 'Bi': 3.0}\",\"('Bi', 'In')\",OTHERS,False\nmp-1214016,\"{'Ca': 10.0, 'Sn': 6.0}\",\"('Ca', 'Sn')\",OTHERS,False\nmp-1198305,\"{'Ce': 40.0, 'Se': 56.0, 'O': 4.0}\",\"('Ce', 'O', 'Se')\",OTHERS,False\nmp-1196696,\"{'Na': 28.0, 'U': 4.0, 'H': 16.0, 'S': 16.0, 'Cl': 4.0, 'O': 80.0}\",\"('Cl', 'H', 'Na', 'O', 'S', 'U')\",OTHERS,False\nmp-756452,\"{'Sm': 4.0, 'Dy': 4.0, 'O': 12.0}\",\"('Dy', 'O', 'Sm')\",OTHERS,False\nmp-1114497,\"{'Rb': 3.0, 'Ga': 1.0, 'Br': 6.0}\",\"('Br', 'Ga', 'Rb')\",OTHERS,False\nmp-1208173,\"{'V': 4.0, 'Pb': 4.0, 'O': 8.0}\",\"('O', 'Pb', 'V')\",OTHERS,False\nmp-1177282,\"{'Li': 4.0, 'Ti': 2.0, 'Mn': 3.0, 'V': 3.0, 'O': 16.0}\",\"('Li', 'Mn', 'O', 'Ti', 'V')\",OTHERS,False\nmp-1070498,\"{'Rb': 2.0, 'Te': 2.0, 'Pt': 1.0}\",\"('Pt', 'Rb', 'Te')\",OTHERS,False\nmp-555688,\"{'W': 4.0, 'S': 8.0, 'N': 12.0, 'Cl': 12.0}\",\"('Cl', 'N', 'S', 'W')\",OTHERS,False\nmp-1194130,\"{'Zr': 16.0, 'Pd': 8.0, 'N': 4.0}\",\"('N', 'Pd', 'Zr')\",OTHERS,False\nmp-1239263,\"{'Hf': 4.0, 'Cr': 4.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cr', 'Cu', 'Hf', 'S')\",OTHERS,False\nmp-779467,\"{'Li': 9.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1095823,\"{'Zn': 2.0, 'Ag': 1.0, 'Ir': 1.0}\",\"('Ag', 'Ir', 'Zn')\",OTHERS,False\nmp-33554,\"{'Cl': 6.0, 'Gd': 1.0, 'Na': 3.0}\",\"('Cl', 'Gd', 'Na')\",OTHERS,False\nmp-985301,\"{'Ac': 1.0, 'Dy': 3.0}\",\"('Ac', 'Dy')\",OTHERS,False\nmp-22017,\"{'In': 4.0, 'La': 2.0, 'Ir': 2.0}\",\"('In', 'Ir', 'La')\",OTHERS,False\nmp-1223441,\"{'K': 1.0, 'Ba': 1.0, 'Li': 1.0, 'Zn': 1.0, 'F': 6.0}\",\"('Ba', 'F', 'K', 'Li', 'Zn')\",OTHERS,False\nmp-1178389,\"{'Fe': 2.0, 'Co': 3.0, 'Sb': 3.0, 'O': 16.0}\",\"('Co', 'Fe', 'O', 'Sb')\",OTHERS,False\nmp-31169,\"{'Al': 1.0, 'Sc': 1.0, 'Ag': 2.0}\",\"('Ag', 'Al', 'Sc')\",OTHERS,False\nmp-570463,\"{'Ta': 8.0, 'Co': 16.0}\",\"('Co', 'Ta')\",OTHERS,False\nmp-14718,\"{'Na': 12.0, 'Mn': 6.0, 'Cr': 6.0, 'F': 42.0}\",\"('Cr', 'F', 'Mn', 'Na')\",OTHERS,False\nmp-1225248,\"{'Fe': 36.0, 'B': 4.0, 'P': 8.0}\",\"('B', 'Fe', 'P')\",OTHERS,False\nmp-1260870,\"{'Ba': 2.0, 'Ti': 3.0, 'Al': 1.0, 'O': 7.0}\",\"('Al', 'Ba', 'O', 'Ti')\",OTHERS,False\nmp-1189173,\"{'La': 6.0, 'Bi': 8.0, 'Pt': 6.0}\",\"('Bi', 'La', 'Pt')\",OTHERS,False\nmp-778476,\"{'Li': 6.0, 'Mn': 5.0, 'Fe': 1.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-698362,\"{'H': 88.0, 'Ir': 4.0, 'C': 12.0, 'N': 24.0, 'O': 32.0}\",\"('C', 'H', 'Ir', 'N', 'O')\",OTHERS,False\nmp-1095898,\"{'Sc': 2.0, 'Ge': 1.0, 'Pd': 1.0}\",\"('Ge', 'Pd', 'Sc')\",OTHERS,False\nmp-985557,\"{'Ce': 3.0, 'Dy': 1.0}\",\"('Ce', 'Dy')\",OTHERS,False\nmp-567241,\"{'Pr': 3.0, 'Ag': 4.0, 'Sn': 4.0}\",\"('Ag', 'Pr', 'Sn')\",OTHERS,False\nmp-7187,\"{'Al': 1.0, 'Ti': 1.0, 'Ni': 2.0}\",\"('Al', 'Ni', 'Ti')\",OTHERS,False\nmp-11441,\"{'Ga': 6.0, 'Hf': 4.0}\",\"('Ga', 'Hf')\",OTHERS,False\nmp-1202551,\"{'Cu': 8.0, 'As': 8.0, 'H': 24.0, 'O': 40.0}\",\"('As', 'Cu', 'H', 'O')\",OTHERS,False\nmp-1213357,\"{'K': 12.0, 'Sm': 8.0, 'N': 36.0, 'O': 108.0}\",\"('K', 'N', 'O', 'Sm')\",OTHERS,False\nmp-752642,\"{'V': 4.0, 'As': 4.0, 'O': 16.0}\",\"('As', 'O', 'V')\",OTHERS,False\nmp-570360,\"{'Rb': 4.0, 'Nd': 8.0, 'I': 20.0}\",\"('I', 'Nd', 'Rb')\",OTHERS,False\nmp-774496,\"{'Li': 30.0, 'Mn': 6.0, 'Si': 24.0, 'O': 72.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1038896,\"{'Mg': 4.0, 'Bi': 8.0}\",\"('Bi', 'Mg')\",OTHERS,False\nmp-10669,\"{'Al': 2.0, 'Ge': 2.0, 'Ba': 3.0}\",\"('Al', 'Ba', 'Ge')\",OTHERS,False\nmp-10963,\"{'Se': 8.0, 'Ag': 4.0, 'Sn': 2.0, 'Hg': 2.0}\",\"('Ag', 'Hg', 'Se', 'Sn')\",OTHERS,False\nmp-1201365,\"{'Pu': 8.0, 'Re': 4.0, 'B': 24.0}\",\"('B', 'Pu', 'Re')\",OTHERS,False\nmp-1223006,\"{'La': 1.0, 'Al': 2.0, 'Ag': 3.0}\",\"('Ag', 'Al', 'La')\",OTHERS,False\nmp-1247428,\"{'Ca': 6.0, 'Re': 2.0, 'N': 6.0}\",\"('Ca', 'N', 'Re')\",OTHERS,False\nmp-1207311,\"{'Nd': 2.0, 'Ag': 1.0, 'Sb': 3.0}\",\"('Ag', 'Nd', 'Sb')\",OTHERS,False\nmp-27725,\"{'I': 4.0, 'Au': 4.0}\",\"('Au', 'I')\",OTHERS,False\nmp-1208738,\"{'Tb': 12.0, 'Ni': 6.0, 'Pb': 1.0}\",\"('Ni', 'Pb', 'Tb')\",OTHERS,False\nmp-861886,\"{'Li': 1.0, 'Dy': 1.0, 'Hg': 2.0}\",\"('Dy', 'Hg', 'Li')\",OTHERS,False\nmp-560920,\"{'Si': 32.0, 'O': 64.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1227645,\"{'Ba': 1.0, 'Sr': 1.0, 'Hf': 2.0, 'O': 6.0}\",\"('Ba', 'Hf', 'O', 'Sr')\",OTHERS,False\nmp-568476,\"{'Bi': 4.0, 'Pd': 8.0, 'Pb': 4.0}\",\"('Bi', 'Pb', 'Pd')\",OTHERS,False\nmp-867627,\"{'Ba': 12.0, 'Pt': 9.0, 'O': 27.0}\",\"('Ba', 'O', 'Pt')\",OTHERS,False\nmp-758743,\"{'Li': 8.0, 'Cu': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'Si')\",OTHERS,False\nmp-555318,\"{'K': 4.0, 'Zn': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('K', 'O', 'Si', 'Zn')\",OTHERS,False\nmp-25372,\"{'Li': 1.0, 'Cu': 1.0, 'O': 2.0}\",\"('Cu', 'Li', 'O')\",OTHERS,False\nmp-1080177,\"{'Pu': 3.0, 'Al': 3.0, 'Ni': 3.0}\",\"('Al', 'Ni', 'Pu')\",OTHERS,False\nmp-864904,\"{'Ho': 1.0, 'Cd': 1.0, 'Ag': 2.0}\",\"('Ag', 'Cd', 'Ho')\",OTHERS,False\nmp-505271,\"{'O': 12.0, 'Ni': 2.0, 'Sb': 4.0}\",\"('Ni', 'O', 'Sb')\",OTHERS,False\nmp-1019783,\"{'K': 16.0, 'S': 16.0, 'O': 24.0}\",\"('K', 'O', 'S')\",OTHERS,False\nmp-1095608,\"{'K': 2.0, 'P': 2.0, 'O': 8.0}\",\"('K', 'O', 'P')\",OTHERS,False\nmp-1095957,\"{'Mg': 1.0, 'Os': 2.0, 'W': 1.0}\",\"('Mg', 'Os', 'W')\",OTHERS,False\nmp-758324,\"{'Ti': 10.0, 'Nb': 4.0, 'O': 28.0}\",\"('Nb', 'O', 'Ti')\",OTHERS,False\nmp-1106407,\"{'Hf': 3.0, 'Co': 9.0, 'B': 6.0}\",\"('B', 'Co', 'Hf')\",OTHERS,False\nmp-18547,\"{'O': 16.0, 'Na': 4.0, 'Ge': 4.0, 'Gd': 4.0}\",\"('Gd', 'Ge', 'Na', 'O')\",OTHERS,False\nmp-1264900,\"{'Mg': 8.0, 'Mn': 8.0, 'Si': 12.0, 'O': 48.0}\",\"('Mg', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1204063,\"{'Li': 88.0, 'Ge': 20.0}\",\"('Ge', 'Li')\",OTHERS,False\nmp-1174644,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-8348,\"{'Tl': 1.0, 'Sb': 1.0, 'F': 6.0}\",\"('F', 'Sb', 'Tl')\",OTHERS,False\nmp-1194936,\"{'Mg': 64.0, 'Si': 32.0, 'Bi': 1.0}\",\"('Bi', 'Mg', 'Si')\",OTHERS,False\nmp-1197529,\"{'Sr': 2.0, 'Au': 4.0, 'S': 8.0, 'O': 32.0}\",\"('Au', 'O', 'S', 'Sr')\",OTHERS,False\nmp-5156,\"{'O': 28.0, 'P': 8.0, 'Th': 4.0}\",\"('O', 'P', 'Th')\",OTHERS,False\nmp-640915,\"{'Na': 8.0, 'La': 4.0, 'P': 4.0, 'S': 8.0, 'O': 28.0}\",\"('La', 'Na', 'O', 'P', 'S')\",OTHERS,False\nmp-1113880,\"{'Rb': 2.0, 'Al': 1.0, 'Cu': 1.0, 'F': 6.0}\",\"('Al', 'Cu', 'F', 'Rb')\",OTHERS,False\nmp-1205230,\"{'Si': 8.0, 'H': 64.0, 'C': 32.0, 'I': 32.0}\",\"('C', 'H', 'I', 'Si')\",OTHERS,False\nmp-863732,\"{'Pm': 2.0, 'Pt': 1.0, 'Rh': 1.0}\",\"('Pm', 'Pt', 'Rh')\",OTHERS,False\nmp-1175245,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-558862,\"{'Na': 2.0, 'Ge': 8.0, 'P': 6.0, 'O': 24.0}\",\"('Ge', 'Na', 'O', 'P')\",OTHERS,False\nmp-1102925,\"{'Nb': 4.0, 'Fe': 4.0, 'Si': 4.0}\",\"('Fe', 'Nb', 'Si')\",OTHERS,False\nmp-29443,\"{'P': 2.0, 'I': 4.0}\",\"('I', 'P')\",OTHERS,False\nmp-1078343,\"{'U': 1.0, 'Ga': 5.0, 'Ru': 1.0}\",\"('Ga', 'Ru', 'U')\",OTHERS,False\nmp-1262565,\"{'Mg': 8.0, 'Ti': 8.0, 'Si': 16.0, 'O': 48.0}\",\"('Mg', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-756010,\"{'Fe': 6.0, 'O': 10.0, 'F': 2.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1186353,\"{'Nd': 6.0, 'Np': 2.0}\",\"('Nd', 'Np')\",OTHERS,False\nmvc-6707,\"{'Mg': 2.0, 'Sn': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Mg', 'O', 'P', 'Sn')\",OTHERS,False\nmp-769713,\"{'Na': 8.0, 'B': 8.0, 'Sb': 4.0, 'S': 2.0, 'O': 32.0}\",\"('B', 'Na', 'O', 'S', 'Sb')\",OTHERS,False\nmp-1173939,\"{'Li': 4.0, 'Mn': 2.0, 'O': 6.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1189044,\"{'Ti': 12.0, 'Ge': 4.0}\",\"('Ge', 'Ti')\",OTHERS,False\nmp-771043,\"{'Y': 8.0, 'Zr': 8.0, 'O': 28.0}\",\"('O', 'Y', 'Zr')\",OTHERS,False\nmp-775289,\"{'Mn': 3.0, 'Cr': 1.0, 'Cu': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Cu', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1245323,\"{'Al': 40.0, 'O': 60.0}\",\"('Al', 'O')\",OTHERS,False\nmp-733936,\"{'Cs': 8.0, 'Mg': 4.0, 'H': 32.0, 'C': 8.0, 'O': 40.0}\",\"('C', 'Cs', 'H', 'Mg', 'O')\",OTHERS,False\nmp-557035,\"{'K': 6.0, 'S': 2.0, 'O': 8.0, 'F': 2.0}\",\"('F', 'K', 'O', 'S')\",OTHERS,False\nmp-771232,\"{'Li': 5.0, 'Mn': 2.0, 'Ni': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'Ni', 'O')\",OTHERS,False\nmp-606102,\"{'Ce': 3.0, 'In': 3.0, 'Ru': 2.0}\",\"('Ce', 'In', 'Ru')\",OTHERS,False\nmp-1218851,\"{'Sr': 2.0, 'Ca': 1.0, 'Ti': 3.0, 'O': 9.0}\",\"('Ca', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-755552,\"{'Li': 1.0, 'Y': 1.0, 'S': 2.0}\",\"('Li', 'S', 'Y')\",OTHERS,False\nmp-19453,\"{'O': 28.0, 'Mo': 4.0, 'Te': 8.0}\",\"('Mo', 'O', 'Te')\",OTHERS,False\nmp-605735,\"{'Sr': 6.0, 'In': 8.0, 'Pb': 2.0}\",\"('In', 'Pb', 'Sr')\",OTHERS,False\nmp-25382,\"{'O': 8.0, 'F': 2.0, 'P': 2.0, 'Fe': 2.0}\",\"('F', 'Fe', 'O', 'P')\",OTHERS,False\nmp-560247,\"{'Li': 4.0, 'Ca': 4.0, 'Si': 10.0, 'O': 26.0}\",\"('Ca', 'Li', 'O', 'Si')\",OTHERS,False\nmp-558997,\"{'Sm': 2.0, 'Mo': 2.0, 'Cl': 2.0, 'O': 8.0}\",\"('Cl', 'Mo', 'O', 'Sm')\",OTHERS,False\nmp-1215148,\"{'Ce': 4.0, 'W': 8.0, 'S': 6.0, 'O': 28.0}\",\"('Ce', 'O', 'S', 'W')\",OTHERS,False\nmp-1225405,\"{'Dy': 2.0, 'In': 3.0, 'Cu': 1.0}\",\"('Cu', 'Dy', 'In')\",OTHERS,False\nmp-18340,\"{'O': 24.0, 'Mo': 4.0, 'Tb': 8.0}\",\"('Mo', 'O', 'Tb')\",OTHERS,False\nmp-504927,\"{'O': 8.0, 'Cr': 2.0, 'Cu': 2.0}\",\"('Cr', 'Cu', 'O')\",OTHERS,False\nmp-1106252,\"{'Nd': 10.0, 'Ga': 6.0}\",\"('Ga', 'Nd')\",OTHERS,False\nmp-3107,\"{'O': 7.0, 'P': 1.0, 'Ga': 3.0}\",\"('Ga', 'O', 'P')\",OTHERS,False\nmp-1212904,\"{'Dy': 10.0, 'Co': 4.0, 'Bi': 2.0}\",\"('Bi', 'Co', 'Dy')\",OTHERS,False\nmp-1181689,\"{'Cs': 6.0, 'Ba': 8.0, 'C': 6.0, 'O': 18.0, 'F': 10.0}\",\"('Ba', 'C', 'Cs', 'F', 'O')\",OTHERS,False\nmp-567114,\"{'Sr': 2.0, 'Bi': 4.0, 'Pd': 4.0}\",\"('Bi', 'Pd', 'Sr')\",OTHERS,False\nmp-1181604,\"{'Fe': 4.0, 'H': 4.0, 'O': 8.0}\",\"('Fe', 'H', 'O')\",OTHERS,False\nmp-654008,\"{'K': 3.0, 'Cr': 11.0, 'S': 18.0}\",\"('Cr', 'K', 'S')\",OTHERS,False\nmp-675532,\"{'La': 2.0, 'Ti': 12.0, 'O': 24.0}\",\"('La', 'O', 'Ti')\",OTHERS,False\nmp-1179601,\"{'Sb': 8.0, 'N': 12.0, 'Cl': 28.0, 'O': 4.0}\",\"('Cl', 'N', 'O', 'Sb')\",OTHERS,False\nmp-1093852,\"{'Y': 1.0, 'Sc': 1.0, 'Pt': 2.0}\",\"('Pt', 'Sc', 'Y')\",OTHERS,False\nmp-21294,\"{'Y': 4.0, 'In': 2.0}\",\"('In', 'Y')\",OTHERS,False\nmp-1216675,\"{'Ti': 1.0, 'Mo': 2.0}\",\"('Mo', 'Ti')\",OTHERS,False\nmp-1291,\"{'In': 3.0, 'Er': 1.0}\",\"('Er', 'In')\",OTHERS,False\nmp-557432,\"{'Ge': 4.0, 'Cl': 4.0, 'O': 8.0, 'F': 20.0}\",\"('Cl', 'F', 'Ge', 'O')\",OTHERS,False\nmp-1096958,\"{'Dy': 2.0, 'Mn': 4.0, 'O': 8.0}\",\"('Dy', 'Mn', 'O')\",OTHERS,False\nmp-1226961,\"{'Ce': 2.0, 'Pr': 4.0, 'S': 8.0}\",\"('Ce', 'Pr', 'S')\",OTHERS,False\nmp-649944,\"{'Na': 8.0, 'Cu': 12.0, 'Si': 16.0, 'O': 48.0}\",\"('Cu', 'Na', 'O', 'Si')\",OTHERS,False\nmp-569879,\"{'Cs': 2.0, 'Ta': 6.0, 'Pb': 1.0, 'Cl': 18.0}\",\"('Cl', 'Cs', 'Pb', 'Ta')\",OTHERS,False\nmp-1246896,\"{'Mn': 6.0, 'Al': 2.0, 'N': 6.0}\",\"('Al', 'Mn', 'N')\",OTHERS,False\nmp-631582,\"{'Al': 1.0, 'Tc': 2.0, 'Pb': 1.0}\",\"('Al', 'Pb', 'Tc')\",OTHERS,False\nmp-1074259,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1227844,\"{'Ba': 1.0, 'La': 1.0, 'Mn': 2.0, 'O': 6.0}\",\"('Ba', 'La', 'Mn', 'O')\",OTHERS,False\nmp-775903,\"{'Li': 4.0, 'Mn': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1095340,\"{'Ba': 2.0, 'Tb': 2.0, 'Ag': 2.0, 'S': 6.0}\",\"('Ag', 'Ba', 'S', 'Tb')\",OTHERS,False\nmp-556062,\"{'Na': 2.0, 'Nb': 8.0, 'Tl': 6.0, 'P': 4.0, 'O': 34.0}\",\"('Na', 'Nb', 'O', 'P', 'Tl')\",OTHERS,False\nmp-677029,\"{'Ca': 4.0, 'Mg': 2.0, 'Al': 4.0, 'Si': 6.0, 'O': 24.0}\",\"('Al', 'Ca', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1095985,\"{'Mg': 1.0, 'Ti': 1.0, 'Au': 2.0}\",\"('Au', 'Mg', 'Ti')\",OTHERS,False\nmp-1223342,\"{'La': 4.0, 'Mn': 2.0, 'Cr': 2.0, 'O': 12.0}\",\"('Cr', 'La', 'Mn', 'O')\",OTHERS,False\nmp-1030704,\"{'Na': 30.0, 'W': 14.0, 'N': 38.0}\",\"('N', 'Na', 'W')\",OTHERS,False\nmp-552113,\"{'V': 4.0, 'O': 6.0}\",\"('O', 'V')\",OTHERS,False\nmp-1196520,\"{'V': 8.0, 'P': 8.0, 'N': 8.0, 'O': 48.0}\",\"('N', 'O', 'P', 'V')\",OTHERS,False\nmp-863767,\"{'Fe': 26.0, 'Sn': 4.0, 'O': 40.0}\",\"('Fe', 'O', 'Sn')\",OTHERS,False\nmp-779587,\"{'Ti': 6.0, 'P': 6.0, 'O': 24.0}\",\"('O', 'P', 'Ti')\",OTHERS,False\nmp-38284,\"{'Ce': 8.0, 'Nd': 8.0, 'O': 28.0}\",\"('Ce', 'Nd', 'O')\",OTHERS,False\nmp-756490,\"{'Li': 12.0, 'Mn': 2.0, 'S': 8.0}\",\"('Li', 'Mn', 'S')\",OTHERS,False\nmp-1112437,\"{'Rb': 2.0, 'Pr': 1.0, 'Cu': 1.0, 'I': 6.0}\",\"('Cu', 'I', 'Pr', 'Rb')\",OTHERS,False\nmp-1203006,\"{'Lu': 6.0, 'Ge': 26.0, 'Ru': 8.0}\",\"('Ge', 'Lu', 'Ru')\",OTHERS,False\nmp-695119,\"{'Na': 6.0, 'Zr': 4.0, 'Si': 4.0, 'P': 2.0, 'O': 24.0}\",\"('Na', 'O', 'P', 'Si', 'Zr')\",OTHERS,False\nmp-1101512,\"{'Li': 4.0, 'Fe': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-22025,\"{'O': 7.0, 'Co': 2.0, 'As': 2.0}\",\"('As', 'Co', 'O')\",OTHERS,False\nmp-27359,\"{'Cl': 6.0, 'Sc': 2.0, 'Cs': 2.0}\",\"('Cl', 'Cs', 'Sc')\",OTHERS,False\nmp-972448,\"{'Sm': 4.0, 'B': 4.0, 'S': 12.0}\",\"('B', 'S', 'Sm')\",OTHERS,False\nmp-674423,\"{'Sr': 20.0, 'Ta': 8.0, 'O': 39.0}\",\"('O', 'Sr', 'Ta')\",OTHERS,False\nmp-775128,\"{'Fe': 3.0, 'Sb': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'O', 'P', 'Sb')\",OTHERS,False\nmp-978490,\"{'Si': 1.0, 'Pd': 1.0, 'O': 3.0}\",\"('O', 'Pd', 'Si')\",OTHERS,False\nmp-569943,\"{'K': 8.0, 'Ag': 4.0, 'I': 12.0}\",\"('Ag', 'I', 'K')\",OTHERS,False\nmp-1096843,\"{'Ba': 1.0, 'Cu': 1.0, 'S': 2.0}\",\"('Ba', 'Cu', 'S')\",OTHERS,False\nmp-640950,\"{'Na': 6.0, 'B': 54.0, 'Se': 48.0}\",\"('B', 'Na', 'Se')\",OTHERS,False\nmp-19137,\"{'O': 6.0, 'K': 2.0, 'Mn': 1.0, 'Se': 2.0}\",\"('K', 'Mn', 'O', 'Se')\",OTHERS,False\nmp-1215786,\"{'Zn': 2.0, 'Cd': 6.0, 'Ge': 2.0, 'S': 12.0}\",\"('Cd', 'Ge', 'S', 'Zn')\",OTHERS,False\nmp-571580,\"{'Er': 56.0, 'In': 12.0, 'Pd': 12.0}\",\"('Er', 'In', 'Pd')\",OTHERS,False\nmp-556481,\"{'Sr': 2.0, 'U': 2.0, 'Se': 4.0, 'O': 16.0}\",\"('O', 'Se', 'Sr', 'U')\",OTHERS,False\nmp-759603,\"{'H': 36.0, 'C': 4.0, 'N': 20.0, 'Cl': 8.0}\",\"('C', 'Cl', 'H', 'N')\",OTHERS,False\nmp-1184082,\"{'Er': 2.0, 'Zn': 1.0, 'Hg': 1.0}\",\"('Er', 'Hg', 'Zn')\",OTHERS,False\nmp-16342,\"{'Ge': 2.0, 'Ho': 2.0}\",\"('Ge', 'Ho')\",OTHERS,False\nmp-1188076,\"{'Th': 1.0, 'Mg': 149.0}\",\"('Mg', 'Th')\",OTHERS,False\nmp-1147741,\"{'Li': 32.0, 'Zn': 8.0, 'P': 16.0, 'S': 64.0}\",\"('Li', 'P', 'S', 'Zn')\",OTHERS,False\nmp-11604,\"{'S': 8.0, 'K': 2.0, 'Cu': 2.0, 'Sm': 4.0}\",\"('Cu', 'K', 'S', 'Sm')\",OTHERS,False\nmp-1079860,\"{'Hf': 3.0, 'Ga': 3.0, 'Ni': 3.0}\",\"('Ga', 'Hf', 'Ni')\",OTHERS,False\nmp-1194612,\"{'Y': 4.0, 'Nb': 4.0, 'Te': 8.0, 'O': 32.0}\",\"('Nb', 'O', 'Te', 'Y')\",OTHERS,False\nmp-11275,\"{'Be': 8.0, 'Re': 4.0}\",\"('Be', 'Re')\",OTHERS,False\nmp-554805,\"{'Sr': 12.0, 'Se': 12.0, 'Cl': 8.0, 'O': 32.0}\",\"('Cl', 'O', 'Se', 'Sr')\",OTHERS,False\nmp-560833,\"{'B': 12.0, 'Pb': 24.0, 'Cl': 4.0, 'O': 40.0}\",\"('B', 'Cl', 'O', 'Pb')\",OTHERS,False\nmp-1074408,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-17395,\"{'B': 10.0, 'O': 20.0, 'Cu': 2.0, 'Tm': 2.0}\",\"('B', 'Cu', 'O', 'Tm')\",OTHERS,False\nmp-10003,\"{'Si': 2.0, 'Co': 2.0, 'Nb': 8.0}\",\"('Co', 'Nb', 'Si')\",OTHERS,False\nmp-219,\"{'P': 1.0, 'Mo': 1.0}\",\"('Mo', 'P')\",OTHERS,False\nmp-1019253,\"{'Sm': 2.0, 'Se': 4.0}\",\"('Se', 'Sm')\",OTHERS,False\nmp-1250551,\"{'Si': 112.0, 'O': 224.0}\",\"('O', 'Si')\",OTHERS,False\nmp-27474,\"{'Pa': 2.0, 'Br': 8.0}\",\"('Br', 'Pa')\",OTHERS,False\nmp-616507,\"{'Cs': 4.0, 'Na': 4.0, 'Ir': 2.0, 'O': 8.0}\",\"('Cs', 'Ir', 'Na', 'O')\",OTHERS,False\nmp-1208821,\"{'Sr': 2.0, 'Zn': 2.0, 'O': 10.0}\",\"('O', 'Sr', 'Zn')\",OTHERS,False\nmvc-2541,\"{'Sr': 2.0, 'Y': 1.0, 'Tl': 1.0, 'V': 2.0, 'O': 7.0}\",\"('O', 'Sr', 'Tl', 'V', 'Y')\",OTHERS,False\nmp-1112505,\"{'Cs': 2.0, 'Al': 1.0, 'Tl': 1.0, 'Cl': 6.0}\",\"('Al', 'Cl', 'Cs', 'Tl')\",OTHERS,False\nmp-567511,\"{'H': 32.0, 'Pt': 4.0, 'C': 4.0, 'N': 32.0}\",\"('C', 'H', 'N', 'Pt')\",OTHERS,False\nmp-17314,\"{'Li': 2.0, 'O': 32.0, 'P': 6.0, 'Mo': 6.0}\",\"('Li', 'Mo', 'O', 'P')\",OTHERS,False\nmp-776165,\"{'Ag': 4.0, 'Au': 4.0, 'O': 12.0}\",\"('Ag', 'Au', 'O')\",OTHERS,False\nmp-1211437,\"{'La': 4.0, 'W': 4.0, 'O': 8.0}\",\"('La', 'O', 'W')\",OTHERS,False\nmp-569543,\"{'Cs': 2.0, 'La': 2.0, 'Zr': 12.0, 'Fe': 2.0, 'Cl': 36.0}\",\"('Cl', 'Cs', 'Fe', 'La', 'Zr')\",OTHERS,False\nmp-707055,\"{'Na': 16.0, 'Ge': 8.0, 'H': 96.0, 'S': 16.0, 'O': 56.0}\",\"('Ge', 'H', 'Na', 'O', 'S')\",OTHERS,False\nmp-1219928,\"{'Pd': 1.0, 'Pt': 1.0, 'Au': 1.0}\",\"('Au', 'Pd', 'Pt')\",OTHERS,False\nmp-1200211,\"{'Ca': 6.0, 'Sn': 26.0, 'Ir': 8.0}\",\"('Ca', 'Ir', 'Sn')\",OTHERS,False\nmp-1102043,\"{'La': 4.0, 'Os': 8.0}\",\"('La', 'Os')\",OTHERS,False\nmp-760329,\"{'Li': 6.0, 'V': 4.0, 'F': 24.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1208095,\"{'Yb': 3.0, 'N': 21.0, 'O': 45.0}\",\"('N', 'O', 'Yb')\",OTHERS,False\nmp-1102036,\"{'Ni': 6.0, 'P': 6.0}\",\"('Ni', 'P')\",OTHERS,False\nmp-1201500,\"{'Ca': 2.0, 'Fe': 10.0, 'P': 10.0, 'O': 44.0}\",\"('Ca', 'Fe', 'O', 'P')\",OTHERS,False\nmp-11595,\"{'Ge': 6.0, 'Yb': 10.0}\",\"('Ge', 'Yb')\",OTHERS,False\nmp-1080202,\"{'Fe': 4.0, 'N': 8.0}\",\"('Fe', 'N')\",OTHERS,False\nmp-1191502,\"{'V': 2.0, 'In': 2.0, 'Se': 4.0, 'O': 16.0}\",\"('In', 'O', 'Se', 'V')\",OTHERS,False\nmp-1025223,\"{'Hf': 4.0, 'Al': 3.0}\",\"('Al', 'Hf')\",OTHERS,False\nmp-631436,\"{'V': 1.0, 'Os': 1.0, 'Cl': 1.0}\",\"('Cl', 'Os', 'V')\",OTHERS,False\nmp-1101293,\"{'Ti': 3.0, 'V': 1.0, 'Ni': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Ni', 'O', 'P', 'Ti', 'V')\",OTHERS,False\nmp-973391,\"{'Li': 4.0, 'Si': 4.0, 'B': 24.0}\",\"('B', 'Li', 'Si')\",OTHERS,False\nmp-778744,\"{'Li': 4.0, 'Mn': 2.0, 'Ni': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'Mn', 'Ni', 'O', 'P')\",OTHERS,False\nmp-570491,\"{'Ta': 1.0, 'Ni': 3.0}\",\"('Ni', 'Ta')\",OTHERS,False\nmp-1198791,\"{'Sb': 8.0, 'Te': 12.0, 'W': 4.0, 'C': 16.0, 'O': 16.0, 'F': 48.0}\",\"('C', 'F', 'O', 'Sb', 'Te', 'W')\",OTHERS,False\nmp-1249484,\"{'K': 2.0, 'Mg': 6.0, 'Al': 2.0, 'Si': 6.0, 'O': 20.0, 'F': 4.0}\",\"('Al', 'F', 'K', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-542658,\"{'K': 4.0, 'Mo': 8.0, 'O': 26.0}\",\"('K', 'Mo', 'O')\",OTHERS,False\nmp-764498,\"{'Mn': 12.0, 'O': 7.0, 'F': 17.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1225451,\"{'Dy': 12.0, 'Co': 9.0}\",\"('Co', 'Dy')\",OTHERS,False\nmp-1205629,\"{'Cs': 3.0, 'Fe': 1.0, 'F': 6.0}\",\"('Cs', 'F', 'Fe')\",OTHERS,False\nmp-1096801,\"{'Ba': 2.0, 'Zr': 2.0, 'P': 4.0}\",\"('Ba', 'P', 'Zr')\",OTHERS,False\nmp-1079720,\"{'Ag': 4.0, 'O': 4.0}\",\"('Ag', 'O')\",OTHERS,False\nmp-1216030,\"{'Yb': 4.0, 'Fe': 1.0, 'S': 7.0}\",\"('Fe', 'S', 'Yb')\",OTHERS,False\nmp-997048,\"{'Ag': 2.0, 'Br': 2.0, 'O': 4.0}\",\"('Ag', 'Br', 'O')\",OTHERS,False\nmp-1185542,\"{'Cs': 1.0, 'K': 2.0, 'Rb': 1.0}\",\"('Cs', 'K', 'Rb')\",OTHERS,False\nmp-30029,\"{'Ni': 39.0, 'Ga': 9.0, 'Ge': 18.0}\",\"('Ga', 'Ge', 'Ni')\",OTHERS,False\nmp-1095337,\"{'Sm': 2.0, 'V': 2.0, 'O': 8.0}\",\"('O', 'Sm', 'V')\",OTHERS,False\nmp-8179,\"{'Li': 2.0, 'O': 4.0, 'Tl': 2.0}\",\"('Li', 'O', 'Tl')\",OTHERS,False\nmp-20373,\"{'B': 4.0, 'Co': 12.0}\",\"('B', 'Co')\",OTHERS,False\nmp-756672,\"{'Li': 16.0, 'Si': 16.0, 'Bi': 8.0, 'O': 52.0}\",\"('Bi', 'Li', 'O', 'Si')\",OTHERS,False\nmp-755081,\"{'Li': 8.0, 'Ni': 5.0, 'O': 10.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmp-19271,\"{'O': 12.0, 'Cr': 4.0, 'Ba': 4.0}\",\"('Ba', 'Cr', 'O')\",OTHERS,False\nmvc-4661,\"{'Zn': 2.0, 'Sb': 4.0, 'O': 8.0}\",\"('O', 'Sb', 'Zn')\",OTHERS,False\nmp-772819,\"{'K': 6.0, 'Cu': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Cu', 'K', 'O', 'P')\",OTHERS,False\nmp-1096787,\"{'Al': 2.0, 'Zn': 2.0, 'S': 5.0}\",\"('Al', 'S', 'Zn')\",OTHERS,False\nmp-4165,\"{'N': 4.0, 'O': 4.0, 'Ta': 4.0}\",\"('N', 'O', 'Ta')\",OTHERS,False\nmp-510569,\"{'Cs': 2.0, 'Ce': 2.0, 'Cu': 2.0, 'S': 6.0}\",\"('Ce', 'Cs', 'Cu', 'S')\",OTHERS,False\nmp-11563,\"{'Ti': 1.0, 'Rh': 1.0}\",\"('Rh', 'Ti')\",OTHERS,False\nmp-554115,\"{'Zn': 24.0, 'S': 24.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-10200,\"{'Be': 2.0, 'Si': 2.0, 'Zr': 2.0}\",\"('Be', 'Si', 'Zr')\",OTHERS,False\nmp-554142,\"{'Ge': 2.0, 'Te': 4.0, 'O': 12.0}\",\"('Ge', 'O', 'Te')\",OTHERS,False\nmp-1216888,\"{'U': 3.0, 'Al': 3.0, 'Co': 1.0, 'Rh': 2.0}\",\"('Al', 'Co', 'Rh', 'U')\",OTHERS,False\nmp-755936,\"{'Lu': 2.0, 'W': 2.0, 'O': 8.0}\",\"('Lu', 'O', 'W')\",OTHERS,False\nmp-1224789,\"{'Ga': 2.0, 'As': 1.0, 'P': 1.0}\",\"('As', 'Ga', 'P')\",OTHERS,False\nmp-29516,\"{'Br': 32.0, 'Rh': 4.0, 'Bi': 28.0}\",\"('Bi', 'Br', 'Rh')\",OTHERS,False\nmp-1216452,\"{'V': 6.0, 'Si': 1.0, 'C': 1.0}\",\"('C', 'Si', 'V')\",OTHERS,False\nmp-1220245,\"{'Nd': 2.0, 'Zn': 1.0, 'Sb': 4.0}\",\"('Nd', 'Sb', 'Zn')\",OTHERS,False\nmp-38077,\"{'Ce': 5.0, 'K': 1.0, 'S': 8.0}\",\"('Ce', 'K', 'S')\",OTHERS,False\nmp-27167,\"{'F': 6.0, 'Sn': 4.0, 'I': 2.0}\",\"('F', 'I', 'Sn')\",OTHERS,False\nmp-780803,\"{'Li': 16.0, 'Fe': 16.0, 'F': 48.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-759065,\"{'Li': 12.0, 'V': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1191432,\"{'Ce': 6.0, 'Al': 2.0, 'Cd': 2.0, 'S': 14.0}\",\"('Al', 'Cd', 'Ce', 'S')\",OTHERS,False\nmp-978255,\"{'Mg': 2.0, 'Ti': 6.0}\",\"('Mg', 'Ti')\",OTHERS,False\nmp-546707,\"{'Na': 4.0, 'O': 4.0, 'C': 1.0}\",\"('C', 'Na', 'O')\",OTHERS,False\nmp-20699,\"{'Y': 4.0, 'Mn': 4.0, 'O': 12.0}\",\"('Mn', 'O', 'Y')\",OTHERS,False\nmp-1216095,\"{'Y': 2.0, 'Mn': 3.0, 'Fe': 1.0}\",\"('Fe', 'Mn', 'Y')\",OTHERS,False\nmp-973198,{'Na': 3.0},\"('Na',)\",OTHERS,False\nmp-639904,\"{'Ce': 12.0, 'Mo': 4.0, 'O': 28.0}\",\"('Ce', 'Mo', 'O')\",OTHERS,False\nmp-1220251,\"{'Nd': 4.0, 'Mn': 1.0, 'Ni': 3.0, 'O': 12.0}\",\"('Mn', 'Nd', 'Ni', 'O')\",OTHERS,False\nmp-1219193,\"{'Si': 1.0, 'Ni': 6.0, 'Ge': 1.0}\",\"('Ge', 'Ni', 'Si')\",OTHERS,False\nmp-31070,\"{'S': 18.0, 'As': 16.0}\",\"('As', 'S')\",OTHERS,False\nmp-9066,\"{'Li': 4.0, 'O': 8.0, 'Na': 2.0, 'As': 2.0}\",\"('As', 'Li', 'Na', 'O')\",OTHERS,False\nmp-9899,\"{'P': 2.0, 'Ag': 2.0, 'Ba': 2.0}\",\"('Ag', 'Ba', 'P')\",OTHERS,False\nmp-1188605,\"{'V': 10.0, 'P': 6.0}\",\"('P', 'V')\",OTHERS,False\nmp-6651,\"{'O': 12.0, 'F': 24.0, 'K': 8.0, 'Ta': 8.0}\",\"('F', 'K', 'O', 'Ta')\",OTHERS,False\nmp-1208632,\"{'Zn': 12.0, 'N': 72.0}\",\"('N', 'Zn')\",OTHERS,False\nmp-1222245,\"{'Mn': 2.0, 'Fe': 8.0, 'Bi': 10.0, 'O': 30.0}\",\"('Bi', 'Fe', 'Mn', 'O')\",OTHERS,False\nmp-604496,\"{'Ce': 2.0, 'Si': 2.0, 'H': 2.0, 'Ru': 2.0}\",\"('Ce', 'H', 'Ru', 'Si')\",OTHERS,False\nmp-2965,\"{'Si': 2.0, 'Mn': 2.0, 'Ce': 1.0}\",\"('Ce', 'Mn', 'Si')\",OTHERS,False\nmp-1205100,\"{'Sn': 2.0, 'S': 12.0, 'N': 4.0, 'O': 42.0}\",\"('N', 'O', 'S', 'Sn')\",OTHERS,False\nmvc-9486,\"{'Ti': 8.0, 'Zn': 4.0, 'P': 8.0, 'O': 32.0}\",\"('O', 'P', 'Ti', 'Zn')\",OTHERS,False\nmp-1224432,\"{'Hf': 1.0, 'U': 3.0, 'S': 3.0}\",\"('Hf', 'S', 'U')\",OTHERS,False\nmp-1179922,\"{'Pt': 4.0, 'N': 8.0, 'O': 16.0}\",\"('N', 'O', 'Pt')\",OTHERS,False\nmp-1197024,\"{'Fe': 4.0, 'Bi': 4.0, 'Se': 12.0, 'O': 36.0}\",\"('Bi', 'Fe', 'O', 'Se')\",OTHERS,False\nmp-1029965,\"{'K': 30.0, 'Os': 14.0, 'N': 38.0}\",\"('K', 'N', 'Os')\",OTHERS,False\nmp-1226910,\"{'Cs': 1.0, 'Nb': 2.0, 'Si': 8.0, 'O': 24.0}\",\"('Cs', 'Nb', 'O', 'Si')\",OTHERS,False\nmp-1097178,\"{'Ta': 1.0, 'Si': 1.0, 'Tc': 2.0}\",\"('Si', 'Ta', 'Tc')\",OTHERS,False\nmp-18520,\"{'O': 24.0, 'P': 4.0, 'V': 4.0, 'Ba': 4.0}\",\"('Ba', 'O', 'P', 'V')\",OTHERS,False\nmp-1093946,\"{'Be': 1.0, 'Ge': 1.0, 'Ir': 2.0}\",\"('Be', 'Ge', 'Ir')\",OTHERS,False\nmp-1220311,\"{'Nd': 1.0, 'Er': 3.0, 'Fe': 34.0}\",\"('Er', 'Fe', 'Nd')\",OTHERS,False\nmp-761240,\"{'Li': 4.0, 'Mn': 2.0, 'V': 2.0, 'P': 8.0, 'O': 28.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-2591,\"{'O': 4.0, 'Ti': 12.0}\",\"('O', 'Ti')\",OTHERS,False\nmp-758932,\"{'Li': 40.0, 'Fe': 8.0, 'H': 8.0, 'O': 32.0}\",\"('Fe', 'H', 'Li', 'O')\",OTHERS,False\nmp-643392,\"{'Ca': 4.0, 'H': 8.0, 'O': 8.0}\",\"('Ca', 'H', 'O')\",OTHERS,False\nmp-1245618,\"{'Ge': 4.0, 'Te': 2.0, 'N': 4.0}\",\"('Ge', 'N', 'Te')\",OTHERS,False\nmp-779534,\"{'Li': 9.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-19388,\"{'O': 8.0, 'Ni': 2.0, 'As': 2.0, 'Ba': 1.0}\",\"('As', 'Ba', 'Ni', 'O')\",OTHERS,False\nmp-715811,\"{'Fe': 12.0, 'O': 16.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-1177898,\"{'Li': 4.0, 'Mn': 2.0, 'Fe': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-765572,\"{'Co': 4.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Co', 'O')\",OTHERS,False\nmp-1216756,\"{'Tm': 2.0, 'B': 6.0, 'Rh': 9.0}\",\"('B', 'Rh', 'Tm')\",OTHERS,False\nmp-1192271,\"{'Cs': 4.0, 'U': 2.0, 'Pd': 6.0, 'S': 12.0}\",\"('Cs', 'Pd', 'S', 'U')\",OTHERS,False\nmp-770464,\"{'La': 4.0, 'Bi': 4.0, 'O': 16.0}\",\"('Bi', 'La', 'O')\",OTHERS,False\nmp-1094041,\"{'Sr': 1.0, 'Ca': 3.0, 'Mn': 4.0, 'O': 12.0}\",\"('Ca', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1096616,\"{'Mg': 1.0, 'Zr': 1.0, 'Cd': 2.0}\",\"('Cd', 'Mg', 'Zr')\",OTHERS,False\nmp-31082,\"{'Li': 4.0, 'Ge': 2.0, 'Zr': 1.0}\",\"('Ge', 'Li', 'Zr')\",OTHERS,False\nmp-752784,\"{'Mn': 8.0, 'O': 8.0, 'F': 8.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-510366,\"{'K': 12.0, 'Co': 4.0, 'O': 10.0}\",\"('Co', 'K', 'O')\",OTHERS,False\nmp-1078409,\"{'Ba': 2.0, 'La': 1.0, 'Bi': 1.0, 'O': 6.0}\",\"('Ba', 'Bi', 'La', 'O')\",OTHERS,False\nmp-849471,\"{'Li': 4.0, 'Mn': 3.0, 'Cr': 2.0, 'Fe': 3.0, 'O': 16.0}\",\"('Cr', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1222442,\"{'Li': 5.0, 'Au': 1.0, 'O': 4.0}\",\"('Au', 'Li', 'O')\",OTHERS,False\nmp-1076208,\"{'K': 20.0, 'Na': 12.0, 'Nb': 16.0, 'W': 16.0, 'O': 80.0}\",\"('K', 'Na', 'Nb', 'O', 'W')\",OTHERS,False\nmp-961681,\"{'Zr': 1.0, 'Ge': 1.0, 'Pt': 1.0}\",\"('Ge', 'Pt', 'Zr')\",OTHERS,False\nmp-1188003,\"{'Zr': 2.0, 'Tc': 1.0, 'Ru': 1.0}\",\"('Ru', 'Tc', 'Zr')\",OTHERS,False\nmp-1220432,\"{'Nd': 4.0, 'Ti': 2.0, 'Cu': 2.0, 'O': 12.0}\",\"('Cu', 'Nd', 'O', 'Ti')\",OTHERS,False\nmp-1025290,\"{'La': 2.0, 'Fe': 2.0, 'Si': 2.0, 'C': 1.0}\",\"('C', 'Fe', 'La', 'Si')\",OTHERS,False\nmp-776648,\"{'Li': 4.0, 'Fe': 6.0, 'F': 16.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-1093709,\"{'Sc': 1.0, 'Cu': 2.0, 'Ag': 1.0}\",\"('Ag', 'Cu', 'Sc')\",OTHERS,False\nmp-1074189,\"{'Mg': 8.0, 'Si': 14.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-612405,\"{'Fe': 6.0, 'O': 8.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-1188851,\"{'Ho': 10.0, 'Bi': 2.0, 'Au': 4.0}\",\"('Au', 'Bi', 'Ho')\",OTHERS,False\nmp-1096783,\"{'Ba': 8.0, 'V': 4.0, 'Fe': 4.0, 'O': 24.0}\",\"('Ba', 'Fe', 'O', 'V')\",OTHERS,False\nmp-1229004,\"{'Al': 1.0, 'Cr': 4.0, 'Cu': 1.0, 'Se': 8.0}\",\"('Al', 'Cr', 'Cu', 'Se')\",OTHERS,False\nmp-757110,\"{'Na': 6.0, 'Ni': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Na', 'Ni', 'O', 'P')\",OTHERS,False\nmvc-8188,\"{'Ca': 2.0, 'Fe': 4.0, 'O': 8.0}\",\"('Ca', 'Fe', 'O')\",OTHERS,False\nmp-1097499,\"{'Nb': 1.0, 'Cr': 2.0, 'W': 1.0}\",\"('Cr', 'Nb', 'W')\",OTHERS,False\nmp-29538,\"{'Cl': 10.0, 'Ba': 2.0, 'Gd': 2.0}\",\"('Ba', 'Cl', 'Gd')\",OTHERS,False\nmp-29759,\"{'V': 4.0, 'Xe': 8.0, 'F': 68.0}\",\"('F', 'V', 'Xe')\",OTHERS,False\nmp-560071,\"{'F': 6.0, 'K': 1.0, 'Co': 1.0, 'Rb': 2.0}\",\"('Co', 'F', 'K', 'Rb')\",OTHERS,False\nmp-1189962,\"{'Pr': 4.0, 'Sc': 4.0, 'S': 12.0}\",\"('Pr', 'S', 'Sc')\",OTHERS,False\nmvc-16379,\"{'Y': 4.0, 'Co': 12.0, 'O': 24.0}\",\"('Co', 'O', 'Y')\",OTHERS,False\nmp-1211841,\"{'K': 2.0, 'H': 16.0, 'W': 2.0, 'N': 4.0, 'F': 12.0}\",\"('F', 'H', 'K', 'N', 'W')\",OTHERS,False\nmp-568922,\"{'Ce': 14.0, 'C': 6.0, 'I': 20.0}\",\"('C', 'Ce', 'I')\",OTHERS,False\nmp-768144,\"{'Na': 4.0, 'Sb': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Na', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1039728,\"{'Na': 1.0, 'Hf': 1.0, 'Mg': 30.0, 'O': 31.0}\",\"('Hf', 'Mg', 'Na', 'O')\",OTHERS,False\nmp-11718,\"{'F': 1.0, 'Rb': 1.0}\",\"('F', 'Rb')\",OTHERS,False\nmp-1228334,\"{'Ba': 4.0, 'Eu': 2.0, 'Cu': 6.0, 'O': 13.0}\",\"('Ba', 'Cu', 'Eu', 'O')\",OTHERS,False\nmp-675423,\"{'Sr': 3.0, 'Cr': 2.0, 'O': 7.0}\",\"('Cr', 'O', 'Sr')\",OTHERS,False\nmp-1178173,\"{'Ho': 2.0, 'Te': 1.0, 'O': 2.0}\",\"('Ho', 'O', 'Te')\",OTHERS,False\nmp-9964,\"{'N': 1.0, 'Ti': 3.0, 'Tl': 1.0}\",\"('N', 'Ti', 'Tl')\",OTHERS,False\nmp-2824,\"{'Al': 4.0, 'Pd': 8.0}\",\"('Al', 'Pd')\",OTHERS,False\nmp-1227522,\"{'Ca': 12.0, 'Al': 2.0, 'Cr': 6.0, 'Si': 12.0, 'O': 48.0}\",\"('Al', 'Ca', 'Cr', 'O', 'Si')\",OTHERS,False\nmp-1215420,\"{'Zr': 3.0, 'Ta': 1.0, 'Fe': 8.0}\",\"('Fe', 'Ta', 'Zr')\",OTHERS,False\nmp-1184147,\"{'Cu': 2.0, 'Ge': 6.0}\",\"('Cu', 'Ge')\",OTHERS,False\nmp-773043,\"{'Li': 8.0, 'Fe': 16.0, 'O': 32.0}\",\"('Fe', 'Li', 'O')\",OTHERS,False\nmp-1176270,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-976008,\"{'Nd': 1.0, 'Tm': 1.0, 'Mg': 2.0}\",\"('Mg', 'Nd', 'Tm')\",OTHERS,False\nmp-1218804,\"{'Sr': 4.0, 'In': 17.0, 'Au': 15.0}\",\"('Au', 'In', 'Sr')\",OTHERS,False\nmp-1020620,\"{'Rb': 5.0, 'Li': 6.0, 'B': 11.0, 'O': 22.0}\",\"('B', 'Li', 'O', 'Rb')\",OTHERS,False\nmp-23915,\"{'H': 4.0, 'O': 52.0, 'Al': 12.0, 'Si': 12.0, 'Ca': 8.0}\",\"('Al', 'Ca', 'H', 'O', 'Si')\",OTHERS,False\nmp-23414,\"{'N': 2.0, 'Cl': 12.0, 'Sc': 8.0}\",\"('Cl', 'N', 'Sc')\",OTHERS,False\nmp-1192042,\"{'Tm': 6.0, 'Al': 2.0, 'Ni': 16.0}\",\"('Al', 'Ni', 'Tm')\",OTHERS,False\nmp-532537,\"{'Ag': 4.0, 'Ca': 8.0, 'Mn': 8.0, 'O': 48.0, 'V': 12.0}\",\"('Ag', 'Ca', 'Mn', 'O', 'V')\",OTHERS,False\nmp-1175273,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1179346,\"{'Te': 2.0, 'C': 8.0, 'S': 8.0, 'N': 16.0, 'F': 8.0}\",\"('C', 'F', 'N', 'S', 'Te')\",OTHERS,False\nmp-1187253,\"{'Ta': 1.0, 'Ti': 3.0}\",\"('Ta', 'Ti')\",OTHERS,False\nmp-1221943,\"{'Mg': 1.0, 'Ge': 1.0, 'P': 2.0}\",\"('Ge', 'Mg', 'P')\",OTHERS,False\nmp-720985,\"{'Ca': 1.0, 'Er': 15.0, 'Si': 8.0, 'Se': 11.0, 'Cl': 1.0, 'O': 28.0}\",\"('Ca', 'Cl', 'Er', 'O', 'Se', 'Si')\",OTHERS,False\nmp-1192759,\"{'Ir': 3.0, 'N': 10.0, 'Cl': 10.0}\",\"('Cl', 'Ir', 'N')\",OTHERS,False\nmp-1213589,\"{'Eu': 9.0, 'Ni': 26.0, 'P': 12.0}\",\"('Eu', 'Ni', 'P')\",OTHERS,False\nmp-556748,\"{'Ca': 2.0, 'Cr': 2.0, 'F': 10.0}\",\"('Ca', 'Cr', 'F')\",OTHERS,False\nmp-29974,\"{'Li': 28.0, 'Ge': 32.0, 'Rb': 4.0}\",\"('Ge', 'Li', 'Rb')\",OTHERS,False\nmp-505131,\"{'Li': 2.0, 'O': 8.0, 'V': 2.0, 'Cu': 2.0}\",\"('Cu', 'Li', 'O', 'V')\",OTHERS,False\nmp-31214,\"{'P': 8.0, 'Ti': 24.0}\",\"('P', 'Ti')\",OTHERS,False\nmp-1093948,\"{'Sr': 1.0, 'La': 1.0, 'Ag': 2.0}\",\"('Ag', 'La', 'Sr')\",OTHERS,False\nmp-1228713,\"{'Al': 4.0, 'Ni': 15.0}\",\"('Al', 'Ni')\",OTHERS,False\nmp-1208398,\"{'Tl': 8.0, 'Se': 12.0, 'O': 48.0}\",\"('O', 'Se', 'Tl')\",OTHERS,False\nmp-765857,\"{'Li': 3.0, 'Cr': 3.0, 'Si': 6.0, 'O': 18.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,False\nmp-773065,\"{'Li': 5.0, 'V': 5.0, 'Cr': 2.0, 'O': 12.0}\",\"('Cr', 'Li', 'O', 'V')\",OTHERS,False\nmp-773108,\"{'Li': 10.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-753626,\"{'Li': 4.0, 'Nd': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Li', 'Nd', 'O', 'P')\",OTHERS,False\nmp-570806,\"{'Mg': 60.0, 'Al': 48.0, 'Ag': 38.0}\",\"('Ag', 'Al', 'Mg')\",OTHERS,False\nmvc-4994,\"{'Ca': 4.0, 'Mo': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Ca', 'Mo', 'O', 'W')\",OTHERS,False\nmp-1219106,\"{'Sm': 1.0, 'Y': 1.0, 'Mn': 4.0, 'Ge': 4.0}\",\"('Ge', 'Mn', 'Sm', 'Y')\",OTHERS,False\nmp-1226593,\"{'Ce': 2.0, 'Y': 2.0, 'Ga': 4.0, 'Pd': 8.0}\",\"('Ce', 'Ga', 'Pd', 'Y')\",OTHERS,False\nmp-19034,\"{'O': 16.0, 'Mg': 6.0, 'V': 4.0}\",\"('Mg', 'O', 'V')\",OTHERS,False\nmp-1186495,\"{'Pm': 3.0, 'Er': 1.0}\",\"('Er', 'Pm')\",OTHERS,False\nmp-7928,\"{'S': 2.0, 'K': 2.0, 'Pt': 1.0}\",\"('K', 'Pt', 'S')\",OTHERS,False\nmp-1201038,\"{'K': 4.0, 'Na': 4.0, 'Al': 24.0, 'Si': 24.0, 'H': 16.0, 'O': 96.0}\",\"('Al', 'H', 'K', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1180271,\"{'Mg': 1.0, 'O': 2.0}\",\"('Mg', 'O')\",OTHERS,False\nmp-18378,\"{'Al': 4.0, 'K': 12.0, 'Te': 12.0}\",\"('Al', 'K', 'Te')\",OTHERS,False\nmp-21634,\"{'Na': 8.0, 'W': 8.0, 'O': 28.0}\",\"('Na', 'O', 'W')\",OTHERS,False\nmp-1221985,\"{'Mg': 1.0, 'Cd': 1.0, 'Ag': 2.0}\",\"('Ag', 'Cd', 'Mg')\",OTHERS,False\nmp-762116,\"{'Li': 4.0, 'Cu': 16.0, 'P': 12.0, 'O': 48.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-772390,\"{'Li': 4.0, 'Al': 4.0, 'Fe': 4.0, 'O': 16.0}\",\"('Al', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-864953,\"{'Mn': 1.0, 'V': 2.0, 'Cr': 1.0}\",\"('Cr', 'Mn', 'V')\",OTHERS,False\nmp-1177443,\"{'Li': 4.0, 'Fe': 2.0, 'Cu': 3.0, 'Sn': 3.0, 'O': 16.0}\",\"('Cu', 'Fe', 'Li', 'O', 'Sn')\",OTHERS,False\nmp-1211512,\"{'K': 4.0, 'Y': 2.0, 'Sb': 2.0, 'O': 14.0}\",\"('K', 'O', 'Sb', 'Y')\",OTHERS,False\nmp-1936,\"{'As': 2.0, 'Ta': 2.0}\",\"('As', 'Ta')\",OTHERS,False\nmp-1187199,\"{'Ta': 3.0, 'Bi': 1.0}\",\"('Bi', 'Ta')\",OTHERS,False\nmp-1245498,\"{'Sr': 8.0, 'Ir': 2.0, 'N': 8.0}\",\"('Ir', 'N', 'Sr')\",OTHERS,False\nmp-570798,\"{'Er': 3.0, 'P': 6.0, 'Pd': 20.0}\",\"('Er', 'P', 'Pd')\",OTHERS,False\nmp-1247357,\"{'Y': 8.0, 'In': 4.0, 'N': 12.0}\",\"('In', 'N', 'Y')\",OTHERS,False\nmp-867291,\"{'Tb': 2.0, 'Ir': 1.0, 'Ru': 1.0}\",\"('Ir', 'Ru', 'Tb')\",OTHERS,False\nmp-1245767,\"{'Ca': 8.0, 'Ir': 4.0, 'N': 12.0}\",\"('Ca', 'Ir', 'N')\",OTHERS,False\nmp-22643,\"{'Co': 2.0, 'Ge': 4.0, 'Tb': 3.0}\",\"('Co', 'Ge', 'Tb')\",OTHERS,False\nmp-1205556,\"{'Ba': 2.0, 'Nd': 1.0, 'Re': 1.0, 'O': 6.0}\",\"('Ba', 'Nd', 'O', 'Re')\",OTHERS,False\nmp-1080127,\"{'Yb': 3.0, 'Cd': 3.0, 'Pb': 3.0}\",\"('Cd', 'Pb', 'Yb')\",OTHERS,False\nmp-780575,\"{'Na': 8.0, 'Fe': 4.0, 'Si': 24.0, 'O': 60.0}\",\"('Fe', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1832,\"{'La': 1.0, 'Pt': 5.0}\",\"('La', 'Pt')\",OTHERS,False\nmp-542501,\"{'U': 3.0, 'Te': 2.0, 'Rb': 2.0, 'O': 14.0}\",\"('O', 'Rb', 'Te', 'U')\",OTHERS,False\nmp-1186401,\"{'Pa': 1.0, 'Si': 1.0, 'O': 3.0}\",\"('O', 'Pa', 'Si')\",OTHERS,False\nmp-505478,\"{'Na': 2.0, 'Fe': 2.0, 'B': 2.0, 'P': 4.0, 'O': 20.0, 'H': 6.0}\",\"('B', 'Fe', 'H', 'Na', 'O', 'P')\",OTHERS,False\nmp-1025510,\"{'Fe': 1.0, 'Cu': 2.0, 'Si': 1.0, 'Se': 4.0}\",\"('Cu', 'Fe', 'Se', 'Si')\",OTHERS,False\nmp-767157,\"{'Ti': 16.0, 'Cu': 1.0, 'S': 32.0}\",\"('Cu', 'S', 'Ti')\",OTHERS,False\nmp-1246884,\"{'Y': 3.0, 'Mg': 2.0, 'V': 1.0, 'S': 8.0}\",\"('Mg', 'S', 'V', 'Y')\",OTHERS,False\nmp-1469,\"{'P': 16.0, 'S': 12.0}\",\"('P', 'S')\",OTHERS,False\nmp-11714,\"{'C': 4.0, 'Si': 4.0}\",\"('C', 'Si')\",OTHERS,False\nmp-1198442,\"{'Cu': 8.0, 'P': 4.0, 'C': 8.0, 'S': 4.0, 'O': 52.0}\",\"('C', 'Cu', 'O', 'P', 'S')\",OTHERS,False\nmp-766048,\"{'Li': 8.0, 'V': 4.0, 'Si': 2.0, 'Ge': 2.0, 'O': 20.0}\",\"('Ge', 'Li', 'O', 'Si', 'V')\",OTHERS,False\nmp-1094475,\"{'Mg': 6.0, 'Zn': 6.0}\",\"('Mg', 'Zn')\",OTHERS,False\nmp-541868,\"{'Te': 6.0, 'Mo': 2.0, 'Cl': 32.0}\",\"('Cl', 'Mo', 'Te')\",OTHERS,False\nmp-1094493,\"{'Mg': 6.0, 'Zn': 6.0}\",\"('Mg', 'Zn')\",OTHERS,False\nmp-975738,\"{'Pr': 2.0, 'B': 4.0, 'Os': 4.0}\",\"('B', 'Os', 'Pr')\",OTHERS,False\nmp-1186483,\"{'Pm': 4.0, 'Mg': 2.0}\",\"('Mg', 'Pm')\",OTHERS,False\nmp-1176410,\"{'Na': 8.0, 'Ni': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Na', 'Ni', 'O', 'P')\",OTHERS,False\nmp-690644,\"{'Tl': 1.0, 'In': 1.0, 'S': 2.0}\",\"('In', 'S', 'Tl')\",OTHERS,False\nmp-752502,\"{'Li': 7.0, 'Cr': 3.0, 'Si': 2.0, 'O': 12.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,False\nmp-30170,\"{'Ge': 40.0, 'Pd': 6.0, 'Ba': 8.0}\",\"('Ba', 'Ge', 'Pd')\",OTHERS,False\nmp-1203462,\"{'Na': 4.0, 'Ho': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Ho', 'Na', 'O', 'P')\",OTHERS,False\nmp-1175073,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-14222,\"{'O': 4.0, 'Ga': 2.0, 'Tl': 2.0}\",\"('Ga', 'O', 'Tl')\",OTHERS,False\nmp-583476,\"{'Nb': 28.0, 'S': 8.0, 'I': 76.0}\",\"('I', 'Nb', 'S')\",OTHERS,False\nmp-35555,\"{'F': 1.0, 'La': 1.0, 'O': 1.0}\",\"('F', 'La', 'O')\",OTHERS,False\nmp-1078621,\"{'Tl': 2.0, 'In': 2.0, 'S': 4.0}\",\"('In', 'S', 'Tl')\",OTHERS,False\nmp-1215536,\"{'Zr': 4.0, 'Si': 2.0, 'Mo': 6.0}\",\"('Mo', 'Si', 'Zr')\",OTHERS,False\nmp-19981,{'Gd': 4.0},\"('Gd',)\",OTHERS,False\nmp-9835,\"{'Co': 2.0, 'Sb': 4.0}\",\"('Co', 'Sb')\",OTHERS,False\nmp-1209369,\"{'Rb': 5.0, 'Dy': 3.0, 'I': 12.0}\",\"('Dy', 'I', 'Rb')\",OTHERS,False\nmp-16690,\"{'P': 8.0, 'S': 28.0, 'K': 8.0, 'Nd': 4.0}\",\"('K', 'Nd', 'P', 'S')\",OTHERS,False\nmp-1096411,\"{'Zr': 2.0, 'In': 1.0, 'Tc': 1.0}\",\"('In', 'Tc', 'Zr')\",OTHERS,False\nmp-570883,\"{'Ca': 42.0, 'Zn': 72.0, 'Ni': 4.0}\",\"('Ca', 'Ni', 'Zn')\",OTHERS,False\nmp-16496,\"{'Al': 2.0, 'Cu': 4.0, 'Re': 4.0}\",\"('Al', 'Cu', 'Re')\",OTHERS,False\nmp-1210367,\"{'Na': 6.0, 'P': 6.0, 'N': 6.0, 'O': 14.0}\",\"('N', 'Na', 'O', 'P')\",OTHERS,False\nmp-1113333,\"{'Tb': 1.0, 'Cs': 2.0, 'Cu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Cu', 'Tb')\",OTHERS,False\nmp-675073,\"{'Na': 8.0, 'Pt': 2.0, 'O': 8.0}\",\"('Na', 'O', 'Pt')\",OTHERS,False\nmp-1245354,\"{'Li': 56.0, 'Cr': 8.0, 'N': 32.0}\",\"('Cr', 'Li', 'N')\",OTHERS,False\nmp-23202,\"{'In': 2.0, 'I': 2.0}\",\"('I', 'In')\",OTHERS,False\nmp-753471,\"{'Li': 4.0, 'Cu': 4.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Cu', 'Li', 'O')\",OTHERS,False\nmp-29216,\"{'Cl': 8.0, 'Cs': 4.0, 'Pt': 2.0}\",\"('Cl', 'Cs', 'Pt')\",OTHERS,False\nmp-1207427,\"{'Zr': 18.0, 'Mo': 8.0, 'O': 6.0}\",\"('Mo', 'O', 'Zr')\",OTHERS,False\nmp-1077262,\"{'Tb': 1.0, 'Cu': 5.0}\",\"('Cu', 'Tb')\",OTHERS,False\nmp-1024977,\"{'Yb': 1.0, 'Ni': 4.0, 'Au': 1.0}\",\"('Au', 'Ni', 'Yb')\",OTHERS,False\nmp-778047,\"{'Na': 32.0, 'Ni': 8.0, 'O': 32.0}\",\"('Na', 'Ni', 'O')\",OTHERS,False\nmp-1222759,\"{'La': 1.0, 'U': 3.0, 'C': 8.0}\",\"('C', 'La', 'U')\",OTHERS,False\nmp-1195560,\"{'C': 24.0, 'F': 40.0}\",\"('C', 'F')\",OTHERS,False\nmp-865778,\"{'Lu': 10.0, 'Rh': 6.0}\",\"('Lu', 'Rh')\",OTHERS,False\nmp-28313,\"{'Nd': 4.0, 'Cl': 8.0}\",\"('Cl', 'Nd')\",OTHERS,False\nmp-1032034,\"{'Sr': 1.0, 'Mg': 6.0, 'Zn': 1.0, 'O': 8.0}\",\"('Mg', 'O', 'Sr', 'Zn')\",OTHERS,False\nmp-542606,{'Pu': 17.0},\"('Pu',)\",OTHERS,False\nmp-1186636,\"{'Pm': 2.0, 'Rh': 6.0}\",\"('Pm', 'Rh')\",OTHERS,False\nmp-995196,\"{'C': 2.0, 'O': 6.0}\",\"('C', 'O')\",OTHERS,False\nmp-4651,\"{'O': 6.0, 'Ti': 2.0, 'Sr': 2.0}\",\"('O', 'Sr', 'Ti')\",OTHERS,False\nmp-771566,\"{'Lu': 8.0, 'Te': 4.0, 'O': 24.0}\",\"('Lu', 'O', 'Te')\",OTHERS,False\nmp-1228701,\"{'Al': 4.0, 'Ge': 2.0, 'W': 3.0}\",\"('Al', 'Ge', 'W')\",OTHERS,False\nmp-753560,\"{'Li': 2.0, 'V': 2.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('H', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1226828,\"{'Ce': 2.0, 'Pd': 3.0, 'Rh': 3.0}\",\"('Ce', 'Pd', 'Rh')\",OTHERS,False\nmp-27080,\"{'Li': 4.0, 'Ni': 12.0, 'P': 16.0, 'O': 60.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-8948,\"{'As': 2.0, 'Pd': 2.0, 'Ce': 2.0}\",\"('As', 'Ce', 'Pd')\",OTHERS,False\nmp-1188397,\"{'Pr': 4.0, 'Mg': 2.0, 'Ir': 2.0, 'O': 12.0}\",\"('Ir', 'Mg', 'O', 'Pr')\",OTHERS,False\nmp-861906,\"{'Ba': 1.0, 'Na': 2.0, 'Mg': 1.0, 'P': 2.0, 'O': 8.0}\",\"('Ba', 'Mg', 'Na', 'O', 'P')\",OTHERS,False\nmp-1232293,\"{'Mg': 1.0, 'Al': 2.0, 'Sn': 2.0}\",\"('Al', 'Mg', 'Sn')\",OTHERS,False\nmp-1208510,\"{'Sr': 2.0, 'Y': 1.0, 'Fe': 3.0, 'O': 8.0}\",\"('Fe', 'O', 'Sr', 'Y')\",OTHERS,False\nmp-541075,\"{'Rb': 4.0, 'Mo': 6.0, 'O': 20.0}\",\"('Mo', 'O', 'Rb')\",OTHERS,False\nmp-1210000,\"{'Nd': 6.0, 'Cd': 4.0, 'Si': 6.0, 'O': 26.0}\",\"('Cd', 'Nd', 'O', 'Si')\",OTHERS,False\nmp-1019740,\"{'Ga': 1.0, 'B': 3.0, 'N': 4.0}\",\"('B', 'Ga', 'N')\",OTHERS,False\nmp-1897,\"{'Rh': 4.0, 'Pu': 2.0}\",\"('Pu', 'Rh')\",OTHERS,False\nmp-683598,\"{'P': 4.0, 'W': 4.0, 'C': 20.0, 'Br': 12.0, 'O': 20.0}\",\"('Br', 'C', 'O', 'P', 'W')\",OTHERS,False\nmp-1216917,\"{'Ti': 1.0, 'In': 1.0, 'Ni': 2.0}\",\"('In', 'Ni', 'Ti')\",OTHERS,False\nmp-703350,\"{'La': 4.0, 'Ge': 6.0, 'O': 18.0}\",\"('Ge', 'La', 'O')\",OTHERS,False\nmp-504891,\"{'La': 6.0, 'Ga': 2.0, 'Mn': 2.0, 'S': 14.0}\",\"('Ga', 'La', 'Mn', 'S')\",OTHERS,False\nmp-1185469,\"{'Li': 1.0, 'Yb': 3.0}\",\"('Li', 'Yb')\",OTHERS,False\nmp-1076679,\"{'La': 7.0, 'Sm': 1.0, 'V': 7.0, 'Cr': 1.0, 'O': 24.0}\",\"('Cr', 'La', 'O', 'Sm', 'V')\",OTHERS,False\nmp-1194017,\"{'Th': 4.0, 'P': 4.0, 'O': 20.0}\",\"('O', 'P', 'Th')\",OTHERS,False\nmp-1652,\"{'Zn': 2.0, 'Pd': 2.0}\",\"('Pd', 'Zn')\",OTHERS,False\nmp-1190316,\"{'Yb': 1.0, 'Fe': 4.0, 'Cu': 3.0, 'O': 12.0}\",\"('Cu', 'Fe', 'O', 'Yb')\",OTHERS,False\nmp-542333,\"{'S': 5.0, 'Cu': 9.0}\",\"('Cu', 'S')\",OTHERS,False\nmp-604537,\"{'Mn': 10.0, 'Ga': 10.0, 'Ni': 20.0}\",\"('Ga', 'Mn', 'Ni')\",OTHERS,False\nmp-1080537,\"{'K': 2.0, 'Na': 1.0, 'V': 1.0, 'F': 6.0}\",\"('F', 'K', 'Na', 'V')\",OTHERS,False\nmp-1226956,\"{'Cd': 10.0, 'P': 6.0, 'O': 26.0}\",\"('Cd', 'O', 'P')\",OTHERS,False\nmp-1105011,\"{'W': 2.0, 'S': 4.0, 'N': 4.0, 'O': 4.0}\",\"('N', 'O', 'S', 'W')\",OTHERS,False\nmp-1074542,\"{'Mg': 16.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-556523,\"{'La': 2.0, 'Pb': 12.0, 'Cl': 2.0, 'O': 14.0}\",\"('Cl', 'La', 'O', 'Pb')\",OTHERS,False\nmp-1097575,\"{'Sc': 2.0, 'Al': 1.0, 'Au': 1.0}\",\"('Al', 'Au', 'Sc')\",OTHERS,False\nmp-505108,\"{'Fe': 1.0, 'Sn': 1.0, 'F': 6.0, 'O': 6.0, 'H': 12.0}\",\"('F', 'Fe', 'H', 'O', 'Sn')\",OTHERS,False\nmp-558356,\"{'Na': 4.0, 'Cr': 2.0, 'Ni': 2.0, 'F': 14.0}\",\"('Cr', 'F', 'Na', 'Ni')\",OTHERS,False\nmp-1154732,\"{'Ca': 4.0, 'Si': 16.0, 'W': 4.0, 'O': 40.0}\",\"('Ca', 'O', 'Si', 'W')\",OTHERS,False\nmp-640715,\"{'Yb': 16.0, 'Rb': 24.0, 'P': 24.0, 'O': 96.0}\",\"('O', 'P', 'Rb', 'Yb')\",OTHERS,False\nmp-1227967,\"{'Ba': 1.0, 'Ga': 3.0, 'Sn': 1.0}\",\"('Ba', 'Ga', 'Sn')\",OTHERS,False\nmp-772830,\"{'Li': 4.0, 'V': 2.0, 'Si': 1.0, 'Ge': 1.0, 'O': 10.0}\",\"('Ge', 'Li', 'O', 'Si', 'V')\",OTHERS,False\nmp-8675,\"{'Pd': 4.0, 'Hg': 4.0}\",\"('Hg', 'Pd')\",OTHERS,False\nmp-1096979,\"{'Na': 24.0, 'V': 24.0, 'Zn': 24.0, 'O': 96.0}\",\"('Na', 'O', 'V', 'Zn')\",OTHERS,False\nmp-1211010,\"{'Ni': 2.0, 'P': 2.0, 'N': 2.0, 'O': 20.0}\",\"('N', 'Ni', 'O', 'P')\",OTHERS,False\nmp-18820,\"{'O': 7.0, 'Fe': 2.0, 'Sr': 3.0}\",\"('Fe', 'O', 'Sr')\",OTHERS,False\nmp-759523,\"{'Li': 4.0, 'V': 2.0, 'Fe': 2.0, 'P': 8.0, 'O': 28.0}\",\"('Fe', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-20979,\"{'Mg': 3.0, 'In': 3.0, 'Tm': 3.0}\",\"('In', 'Mg', 'Tm')\",OTHERS,False\nmp-1245514,\"{'Sb': 2.0, 'C': 3.0, 'N': 6.0}\",\"('C', 'N', 'Sb')\",OTHERS,False\nmp-775023,\"{'Li': 2.0, 'Fe': 3.0, 'Sn': 1.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Sn')\",OTHERS,False\nmp-1244965,\"{'Si': 34.0, 'O': 68.0}\",\"('O', 'Si')\",OTHERS,False\nmp-849952,\"{'Li': 2.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1183938,\"{'Cs': 1.0, 'K': 2.0, 'As': 1.0}\",\"('As', 'Cs', 'K')\",OTHERS,False\nmp-1239391,\"{'Zn': 4.0, 'Co': 8.0, 'Cu': 8.0, 'O': 32.0}\",\"('Co', 'Cu', 'O', 'Zn')\",OTHERS,False\nmp-1178487,\"{'Bi': 10.0, 'O': 14.0, 'F': 2.0}\",\"('Bi', 'F', 'O')\",OTHERS,False\nmp-1246778,\"{'Li': 4.0, 'Cd': 4.0, 'N': 4.0}\",\"('Cd', 'Li', 'N')\",OTHERS,False\nmp-976380,\"{'Nd': 2.0, 'Ni': 4.0, 'Sb': 4.0}\",\"('Nd', 'Ni', 'Sb')\",OTHERS,False\nmp-776246,\"{'Zr': 16.0, 'N': 16.0, 'O': 8.0}\",\"('N', 'O', 'Zr')\",OTHERS,False\nmp-33569,\"{'La': 4.0, 'Se': 8.0, 'Sr': 2.0}\",\"('La', 'Se', 'Sr')\",OTHERS,False\nmp-1213705,\"{'Cs': 4.0, 'Na': 2.0, 'Ga': 2.0, 'P': 4.0}\",\"('Cs', 'Ga', 'Na', 'P')\",OTHERS,False\nmp-23060,\"{'I': 6.0, 'Cs': 2.0, 'Pt': 1.0}\",\"('Cs', 'I', 'Pt')\",OTHERS,False\nmp-1180066,\"{'Ni': 1.0, 'I': 2.0, 'O': 6.0}\",\"('I', 'Ni', 'O')\",OTHERS,False\nmp-744841,\"{'Si': 2.0, 'Mo': 24.0, 'H': 48.0, 'C': 12.0, 'N': 6.0, 'O': 80.0}\",\"('C', 'H', 'Mo', 'N', 'O', 'Si')\",OTHERS,False\nmp-1078818,\"{'Mg': 4.0, 'Ni': 2.0, 'H': 4.0}\",\"('H', 'Mg', 'Ni')\",OTHERS,False\nmp-1184504,\"{'Eu': 6.0, 'W': 2.0}\",\"('Eu', 'W')\",OTHERS,False\nmp-849361,\"{'Li': 4.0, 'V': 4.0, 'F': 20.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1212011,\"{'In': 4.0, 'Sb': 4.0, 'Se': 12.0}\",\"('In', 'Sb', 'Se')\",OTHERS,False\nmp-1384,\"{'La': 1.0, 'Ir': 5.0}\",\"('Ir', 'La')\",OTHERS,False\nmp-773918,\"{'Zn': 1.0, 'Bi': 38.0, 'O': 60.0}\",\"('Bi', 'O', 'Zn')\",OTHERS,False\nmp-759435,\"{'Li': 4.0, 'Cu': 4.0, 'P': 12.0, 'O': 36.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-1220982,\"{'Na': 1.0, 'Li': 1.0, 'Ga': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Ga', 'Li', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1225162,\"{'Eu': 1.0, 'Si': 3.0, 'Ni': 1.0}\",\"('Eu', 'Ni', 'Si')\",OTHERS,False\nmp-1205433,\"{'Dy': 2.0, 'In': 8.0, 'Pt': 8.0}\",\"('Dy', 'In', 'Pt')\",OTHERS,False\nmp-752904,\"{'Li': 3.0, 'Fe': 3.0, 'Si': 1.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-758846,\"{'Li': 3.0, 'Mn': 2.0, 'Ni': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'Ni', 'O')\",OTHERS,False\nmp-6805,\"{'O': 48.0, 'P': 12.0, 'K': 12.0, 'Ga': 8.0}\",\"('Ga', 'K', 'O', 'P')\",OTHERS,False\nmp-1185485,\"{'Lu': 1.0, 'Al': 1.0, 'O': 3.0}\",\"('Al', 'Lu', 'O')\",OTHERS,False\nmp-1184799,\"{'In': 1.0, 'Os': 1.0, 'O': 3.0}\",\"('In', 'O', 'Os')\",OTHERS,False\nmp-1186244,\"{'Pm': 1.0, 'Nd': 3.0}\",\"('Nd', 'Pm')\",OTHERS,False\nmp-768042,\"{'Na': 8.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Na', 'O', 'P')\",OTHERS,False\nmp-1225429,\"{'Eu': 2.0, 'Al': 3.0, 'Ag': 1.0}\",\"('Ag', 'Al', 'Eu')\",OTHERS,False\nmp-1187603,\"{'Tm': 1.0, 'Sb': 1.0, 'Rh': 2.0}\",\"('Rh', 'Sb', 'Tm')\",OTHERS,False\nmp-1190160,\"{'K': 4.0, 'Se': 4.0, 'O': 14.0}\",\"('K', 'O', 'Se')\",OTHERS,False\nmp-1219871,\"{'Pd': 4.0, 'Se': 4.0, 'S': 4.0}\",\"('Pd', 'S', 'Se')\",OTHERS,False\nmp-1078780,\"{'Zn': 1.0, 'Cd': 3.0, 'S': 4.0}\",\"('Cd', 'S', 'Zn')\",OTHERS,False\nmp-984454,\"{'K': 1.0, 'Tl': 1.0, 'O': 3.0}\",\"('K', 'O', 'Tl')\",OTHERS,False\nmp-1201660,\"{'Ho': 10.0, 'Ge': 20.0, 'Os': 8.0}\",\"('Ge', 'Ho', 'Os')\",OTHERS,False\nmp-15963,\"{'P': 3.0, 'Ru': 3.0, 'Hf': 3.0}\",\"('Hf', 'P', 'Ru')\",OTHERS,False\nmp-1096584,\"{'Li': 1.0, 'Ga': 2.0, 'Tc': 1.0}\",\"('Ga', 'Li', 'Tc')\",OTHERS,False\nmp-696490,\"{'Ca': 8.0, 'H': 8.0, 'S': 8.0, 'O': 28.0}\",\"('Ca', 'H', 'O', 'S')\",OTHERS,False\nmp-1238814,\"{'H': 4.0, 'N': 1.0}\",\"('H', 'N')\",OTHERS,False\nmp-1246350,\"{'Sr': 8.0, 'V': 4.0, 'N': 8.0}\",\"('N', 'Sr', 'V')\",OTHERS,False\nmp-11143,\"{'Si': 8.0, 'Cu': 18.0, 'Ba': 2.0}\",\"('Ba', 'Cu', 'Si')\",OTHERS,False\nmp-631358,\"{'Sr': 1.0, 'Ta': 2.0, 'Mn': 1.0}\",\"('Mn', 'Sr', 'Ta')\",OTHERS,False\nmp-1221508,\"{'Na': 11.0, 'Ti': 1.0, 'Nb': 2.0, 'Si': 4.0, 'P': 2.0, 'O': 25.0, 'F': 1.0}\",\"('F', 'Na', 'Nb', 'O', 'P', 'Si', 'Ti')\",OTHERS,False\nmp-1215195,\"{'Zr': 1.0, 'U': 1.0, 'C': 2.0}\",\"('C', 'U', 'Zr')\",OTHERS,False\nmp-1224102,\"{'In': 2.0, 'Cu': 2.0, 'Sn': 2.0, 'S': 8.0}\",\"('Cu', 'In', 'S', 'Sn')\",OTHERS,False\nmp-1217816,\"{'Ta': 1.0, 'V': 1.0, 'H': 4.0}\",\"('H', 'Ta', 'V')\",OTHERS,False\nmp-676020,\"{'Ba': 2.0, 'C': 2.0, 'O': 6.0}\",\"('Ba', 'C', 'O')\",OTHERS,False\nmp-764781,\"{'Li': 3.0, 'Co': 4.0, 'O': 8.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-561352,\"{'Ba': 2.0, 'Na': 4.0, 'Ti': 4.0, 'Si': 8.0, 'O': 28.0}\",\"('Ba', 'Na', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-753245,\"{'Li': 2.0, 'Mn': 4.0, 'O': 6.0, 'F': 2.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-20701,\"{'K': 2.0, 'Ba': 1.0, 'Co': 1.0, 'N': 6.0, 'O': 12.0}\",\"('Ba', 'Co', 'K', 'N', 'O')\",OTHERS,False\nmp-16509,\"{'Al': 8.0, 'Ni': 2.0, 'Lu': 2.0}\",\"('Al', 'Lu', 'Ni')\",OTHERS,False\nmp-1800,\"{'C': 12.0, 'Nd': 8.0}\",\"('C', 'Nd')\",OTHERS,False\nmp-1221192,\"{'Na': 8.0, 'Li': 2.0, 'Nb': 10.0, 'O': 30.0}\",\"('Li', 'Na', 'Nb', 'O')\",OTHERS,False\nmp-694915,\"{'Ca': 2.0, 'La': 2.0, 'Mn': 2.0, 'Sn': 2.0, 'O': 12.0}\",\"('Ca', 'La', 'Mn', 'O', 'Sn')\",OTHERS,False\nmp-753828,\"{'Li': 4.0, 'Co': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'O', 'Si')\",OTHERS,False\nmp-759326,\"{'Li': 6.0, 'Mn': 11.0, 'O': 2.0, 'F': 24.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1025261,\"{'Mg': 1.0, 'P': 1.0, 'Pd': 5.0}\",\"('Mg', 'P', 'Pd')\",OTHERS,False\nmp-1036235,\"{'Mg': 14.0, 'Mn': 1.0, 'Co': 1.0, 'O': 16.0}\",\"('Co', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-865554,\"{'Mn': 2.0, 'V': 1.0, 'Ge': 1.0}\",\"('Ge', 'Mn', 'V')\",OTHERS,False\nmp-1175727,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-770910,\"{'Li': 12.0, 'Mn': 4.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1198784,\"{'Cs': 4.0, 'U': 2.0, 'Nb': 12.0, 'Cl': 30.0, 'O': 6.0}\",\"('Cl', 'Cs', 'Nb', 'O', 'U')\",OTHERS,False\nmp-1104791,\"{'Li': 1.0, 'Mg': 8.0, 'Si': 4.0}\",\"('Li', 'Mg', 'Si')\",OTHERS,False\nmp-27493,\"{'O': 32.0, 'P': 8.0, 'Sn': 12.0}\",\"('O', 'P', 'Sn')\",OTHERS,False\nmp-761260,\"{'Li': 4.0, 'V': 2.0, 'O': 4.0, 'F': 4.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-31474,\"{'Rb': 2.0, 'Hg': 7.0}\",\"('Hg', 'Rb')\",OTHERS,False\nmp-1221556,\"{'Na': 4.0, 'Mg': 1.0, 'V': 10.0, 'H': 44.0, 'O': 52.0}\",\"('H', 'Mg', 'Na', 'O', 'V')\",OTHERS,False\nmp-553949,\"{'Ag': 4.0, 'Hg': 4.0, 'Te': 6.0, 'O': 24.0}\",\"('Ag', 'Hg', 'O', 'Te')\",OTHERS,False\nmp-867164,\"{'Pm': 3.0, 'Sn': 1.0}\",\"('Pm', 'Sn')\",OTHERS,False\nmp-31476,\"{'H': 6.0, 'C': 12.0, 'Cs': 6.0}\",\"('C', 'Cs', 'H')\",OTHERS,False\nmp-603940,\"{'Fe': 2.0, 'H': 24.0, 'C': 8.0, 'N': 2.0, 'Cl': 8.0}\",\"('C', 'Cl', 'Fe', 'H', 'N')\",OTHERS,False\nmp-756542,\"{'Mn': 2.0, 'V': 2.0, 'O': 8.0}\",\"('Mn', 'O', 'V')\",OTHERS,False\nmp-31447,\"{'Tb': 2.0, 'Ag': 2.0, 'Pb': 2.0}\",\"('Ag', 'Pb', 'Tb')\",OTHERS,False\nmp-1027480,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1198290,\"{'Na': 4.0, 'U': 4.0, 'H': 36.0, 'Se': 8.0, 'O': 48.0}\",\"('H', 'Na', 'O', 'Se', 'U')\",OTHERS,False\nmp-1177564,\"{'Li': 12.0, 'Mn': 4.0, 'V': 4.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1206924,\"{'Ba': 1.0, 'Zn': 2.0, 'Ge': 2.0}\",\"('Ba', 'Ge', 'Zn')\",OTHERS,False\nmp-780704,\"{'V': 6.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-8312,\"{'As': 4.0, 'Ta': 5.0}\",\"('As', 'Ta')\",OTHERS,False\nmp-851099,\"{'Li': 9.0, 'Mn': 7.0, 'Cr': 12.0, 'O': 48.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-21013,\"{'Li': 1.0, 'C': 6.0, 'N': 6.0, 'Fe': 1.0, 'Cs': 2.0}\",\"('C', 'Cs', 'Fe', 'Li', 'N')\",OTHERS,False\nmp-1070789,\"{'Cr': 1.0, 'Au': 4.0}\",\"('Au', 'Cr')\",OTHERS,False\nmp-1224477,\"{'H': 11.0, 'I': 1.0, 'N': 2.0, 'O': 6.0}\",\"('H', 'I', 'N', 'O')\",OTHERS,False\nmp-684784,\"{'Sr': 1.0, 'Nd': 7.0, 'Fe': 8.0, 'As': 8.0, 'O': 8.0}\",\"('As', 'Fe', 'Nd', 'O', 'Sr')\",OTHERS,False\nmp-1218452,\"{'Sr': 5.0, 'Fe': 4.0, 'Co': 1.0, 'O': 10.0}\",\"('Co', 'Fe', 'O', 'Sr')\",OTHERS,False\nmp-9548,\"{'Ge': 6.0, 'As': 6.0}\",\"('As', 'Ge')\",OTHERS,False\nmp-683616,\"{'Li': 5.0, 'Ti': 7.0, 'In': 1.0, 'P': 12.0, 'O': 48.0}\",\"('In', 'Li', 'O', 'P', 'Ti')\",OTHERS,False\nmp-30495,\"{'Sm': 1.0, 'Cd': 2.0}\",\"('Cd', 'Sm')\",OTHERS,False\nmp-769486,\"{'Na': 6.0, 'Ni': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Na', 'Ni', 'O', 'P')\",OTHERS,False\nmp-28318,\"{'Hg': 4.0, 'Te': 4.0, 'O': 12.0}\",\"('Hg', 'O', 'Te')\",OTHERS,False\nmp-1175750,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-27491,\"{'Ca': 2.0, 'Fe': 8.0, 'O': 12.0}\",\"('Ca', 'Fe', 'O')\",OTHERS,False\nmp-1227175,\"{'Ca': 2.0, 'Nd': 2.0, 'Cr': 2.0, 'O': 8.0}\",\"('Ca', 'Cr', 'Nd', 'O')\",OTHERS,False\nmp-1188236,\"{'Gd': 4.0, 'Mg': 2.0, 'Ir': 2.0, 'O': 12.0}\",\"('Gd', 'Ir', 'Mg', 'O')\",OTHERS,False\nmvc-601,\"{'Y': 1.0, 'Sn': 1.0, 'W': 2.0, 'O': 8.0}\",\"('O', 'Sn', 'W', 'Y')\",OTHERS,False\nmp-562541,\"{'Cs': 8.0, 'Na': 12.0, 'Tl': 4.0, 'O': 16.0}\",\"('Cs', 'Na', 'O', 'Tl')\",OTHERS,False\nmp-1238482,\"{'Mn': 2.0, 'Al': 4.0, 'P': 4.0, 'H': 40.0, 'O': 32.0}\",\"('Al', 'H', 'Mn', 'O', 'P')\",OTHERS,False\nmp-643432,\"{'H': 12.0, 'N': 4.0}\",\"('H', 'N')\",OTHERS,False\nmp-1099868,\"{'K': 8.0, 'Na': 24.0, 'V': 16.0, 'Mo': 16.0, 'O': 80.0}\",\"('K', 'Mo', 'Na', 'O', 'V')\",OTHERS,False\nmp-1247030,\"{'Lu': 1.0, 'Mg': 2.0, 'Mo': 3.0, 'S': 8.0}\",\"('Lu', 'Mg', 'Mo', 'S')\",OTHERS,False\nmp-1018809,\"{'Mo': 2.0, 'S': 4.0}\",\"('Mo', 'S')\",OTHERS,False\nmp-1206203,\"{'Yb': 2.0, 'Se': 2.0, 'I': 2.0}\",\"('I', 'Se', 'Yb')\",OTHERS,False\nmvc-16572,\"{'Ca': 4.0, 'Mo': 4.0, 'O': 12.0}\",\"('Ca', 'Mo', 'O')\",OTHERS,False\nmp-30599,\"{'Ti': 2.0, 'Cu': 3.0}\",\"('Cu', 'Ti')\",OTHERS,False\nmp-1204662,\"{'Sr': 18.0, 'W': 6.0, 'O': 36.0}\",\"('O', 'Sr', 'W')\",OTHERS,False\nmp-755970,\"{'Li': 6.0, 'Mn': 2.0, 'Si': 2.0, 'B': 2.0, 'O': 14.0}\",\"('B', 'Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1221713,\"{'Mn': 2.0, 'Fe': 8.0, 'Si': 6.0}\",\"('Fe', 'Mn', 'Si')\",OTHERS,False\nmp-1206795,\"{'Sm': 2.0, 'Fe': 4.0, 'Si': 2.0, 'C': 2.0}\",\"('C', 'Fe', 'Si', 'Sm')\",OTHERS,False\nmp-1095591,\"{'Tm': 3.0, 'Cu': 4.0, 'Sn': 4.0}\",\"('Cu', 'Sn', 'Tm')\",OTHERS,False\nmp-1228562,\"{'Al': 9.0, 'Ge': 3.0, 'W': 6.0}\",\"('Al', 'Ge', 'W')\",OTHERS,False\nmp-1214122,\"{'Ca': 2.0, 'Ce': 2.0, 'Al': 2.0, 'Fe': 4.0, 'Si': 6.0, 'O': 26.0}\",\"('Al', 'Ca', 'Ce', 'Fe', 'O', 'Si')\",OTHERS,False\nmp-772977,\"{'Ba': 10.0, 'Li': 1.0, 'W': 7.0, 'O': 30.0}\",\"('Ba', 'Li', 'O', 'W')\",OTHERS,False\nmp-697008,\"{'Cu': 2.0, 'H': 24.0, 'N': 4.0, 'O': 4.0, 'F': 8.0}\",\"('Cu', 'F', 'H', 'N', 'O')\",OTHERS,False\nmp-1209449,\"{'Rb': 12.0, 'Lu': 4.0, 'Cl': 24.0}\",\"('Cl', 'Lu', 'Rb')\",OTHERS,False\nmp-1214127,\"{'Ca': 2.0, 'Al': 4.0, 'Si': 12.0, 'H': 20.0, 'O': 42.0}\",\"('Al', 'Ca', 'H', 'O', 'Si')\",OTHERS,False\nmp-1218750,\"{'Sr': 2.0, 'Nb': 1.0, 'In': 1.0, 'O': 6.0}\",\"('In', 'Nb', 'O', 'Sr')\",OTHERS,False\nmp-760101,\"{'Li': 6.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1072320,\"{'Hg': 2.0, 'S': 2.0, 'Br': 2.0}\",\"('Br', 'Hg', 'S')\",OTHERS,False\nmp-1070456,\"{'Be': 3.0, 'N': 2.0}\",\"('Be', 'N')\",OTHERS,False\nmp-769464,\"{'Li': 4.0, 'La': 12.0, 'Mn': 4.0, 'O': 28.0}\",\"('La', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1199385,\"{'Er': 20.0, 'In': 40.0, 'Ni': 18.0}\",\"('Er', 'In', 'Ni')\",OTHERS,False\nmp-1235,\"{'Ti': 2.0, 'Ir': 2.0}\",\"('Ir', 'Ti')\",OTHERS,False\nmp-1179195,\"{'Si': 20.0, 'O': 30.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1223968,\"{'Ho': 2.0, 'Si': 1.0, 'Ge': 1.0}\",\"('Ge', 'Ho', 'Si')\",OTHERS,False\nmp-70,{'Rb': 1.0},\"('Rb',)\",OTHERS,False\nmp-1226388,\"{'Cr': 4.0, 'Cd': 2.0, 'Se': 6.0, 'S': 2.0}\",\"('Cd', 'Cr', 'S', 'Se')\",OTHERS,False\nmp-19253,\"{'O': 3.0, 'V': 1.0, 'Nd': 1.0}\",\"('Nd', 'O', 'V')\",OTHERS,False\nmp-11307,\"{'Mg': 2.0, 'Cd': 2.0}\",\"('Cd', 'Mg')\",OTHERS,False\nmp-1177924,\"{'Li': 2.0, 'Mn': 3.0, 'W': 1.0, 'O': 8.0}\",\"('Li', 'Mn', 'O', 'W')\",OTHERS,False\nmp-1205739,\"{'Li': 2.0, 'Sn': 1.0, 'F': 6.0}\",\"('F', 'Li', 'Sn')\",OTHERS,False\nmp-1184083,\"{'Er': 2.0, 'Zn': 1.0, 'Ag': 1.0}\",\"('Ag', 'Er', 'Zn')\",OTHERS,False\nmp-1176364,\"{'Na': 6.0, 'Li': 6.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'Na', 'O', 'P')\",OTHERS,False\nmp-865050,\"{'Hf': 1.0, 'Mg': 1.0, 'Rh': 2.0}\",\"('Hf', 'Mg', 'Rh')\",OTHERS,False\nmp-1216330,\"{'V': 2.0, 'Fe': 2.0, 'Sb': 2.0, 'O': 12.0}\",\"('Fe', 'O', 'Sb', 'V')\",OTHERS,False\nmp-694910,\"{'Fe': 35.0, 'O': 36.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-849757,\"{'Li': 4.0, 'Mn': 4.0, 'Si': 16.0, 'O': 40.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1184359,\"{'Eu': 1.0, 'Hg': 1.0, 'O': 3.0}\",\"('Eu', 'Hg', 'O')\",OTHERS,False\nmp-12867,\"{'O': 6.0, 'Sr': 2.0, 'Sn': 2.0}\",\"('O', 'Sn', 'Sr')\",OTHERS,False\nmp-1222296,\"{'Li': 1.0, 'Sm': 1.0, 'S': 2.0}\",\"('Li', 'S', 'Sm')\",OTHERS,False\nmp-1232422,\"{'Yb': 3.0, 'Hf': 1.0}\",\"('Hf', 'Yb')\",OTHERS,False\nmp-1183580,\"{'Cd': 3.0, 'B': 1.0}\",\"('B', 'Cd')\",OTHERS,False\nmp-17189,\"{'K': 6.0, 'Ce': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Ce', 'K', 'O', 'P')\",OTHERS,False\nmp-561051,\"{'Rb': 4.0, 'Sb': 8.0, 'S': 14.0}\",\"('Rb', 'S', 'Sb')\",OTHERS,False\nmp-759536,\"{'V': 8.0, 'O': 6.0, 'F': 18.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-1226037,\"{'Co': 3.0, 'Ni': 3.0, 'P': 3.0}\",\"('Co', 'Ni', 'P')\",OTHERS,False\nmp-1215636,\"{'Zn': 1.0, 'Ni': 4.0, 'O': 5.0}\",\"('Ni', 'O', 'Zn')\",OTHERS,False\nmp-1198572,\"{'Yb': 2.0, 'Al': 2.0, 'B': 28.0}\",\"('Al', 'B', 'Yb')\",OTHERS,False\nmp-753486,\"{'Ba': 2.0, 'Ca': 2.0, 'I': 8.0}\",\"('Ba', 'Ca', 'I')\",OTHERS,False\nmp-1100520,\"{'Li': 9.0, 'Mn': 7.0, 'O': 16.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-22350,\"{'N': 1.0, 'Sn': 1.0, 'Nd': 3.0}\",\"('N', 'Nd', 'Sn')\",OTHERS,False\nmvc-9204,\"{'Ti': 2.0, 'Cr': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1227996,\"{'Ca': 6.0, 'Fe': 14.0, 'Si': 12.0, 'O': 48.0}\",\"('Ca', 'Fe', 'O', 'Si')\",OTHERS,False\nmp-504372,\"{'Ni': 12.0, 'P': 14.0, 'O': 48.0}\",\"('Ni', 'O', 'P')\",OTHERS,False\nmp-1104792,\"{'Mn': 1.0, 'Be': 12.0}\",\"('Be', 'Mn')\",OTHERS,False\nmp-1224812,\"{'Ga': 1.0, 'Co': 4.0}\",\"('Co', 'Ga')\",OTHERS,False\nmp-1037110,\"{'Mg': 30.0, 'Zn': 1.0, 'Bi': 1.0, 'O': 32.0}\",\"('Bi', 'Mg', 'O', 'Zn')\",OTHERS,False\nmp-862555,\"{'Li': 1.0, 'Y': 2.0, 'Al': 1.0}\",\"('Al', 'Li', 'Y')\",OTHERS,False\nmp-697813,\"{'Li': 4.0, 'Cr': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-694534,\"{'Li': 2.0, 'Fe': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-772498,\"{'Na': 6.0, 'Li': 6.0, 'Mn': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Li', 'Mn', 'Na', 'O', 'P')\",OTHERS,False\nmp-16373,\"{'Ge': 4.0, 'U': 2.0}\",\"('Ge', 'U')\",OTHERS,False\nmp-763099,\"{'Li': 2.0, 'V': 1.0, 'O': 2.0, 'F': 1.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-705201,\"{'Fe': 16.0, 'P': 16.0, 'O': 64.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-1075482,\"{'Mg': 12.0, 'Si': 16.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1219995,\"{'Pr': 12.0, 'Al': 6.0, 'Fe': 22.0}\",\"('Al', 'Fe', 'Pr')\",OTHERS,False\nmvc-1666,\"{'Ta': 4.0, 'Zn': 2.0, 'O': 12.0}\",\"('O', 'Ta', 'Zn')\",OTHERS,False\nmp-778347,\"{'Li': 4.0, 'Fe': 4.0, 'F': 16.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-1198871,\"{'Zn': 6.0, 'P': 12.0, 'H': 12.0, 'O': 38.0}\",\"('H', 'O', 'P', 'Zn')\",OTHERS,False\nmp-705845,\"{'Ba': 4.0, 'Fe': 4.0, 'O': 12.0}\",\"('Ba', 'Fe', 'O')\",OTHERS,False\nmp-1113297,\"{'Eu': 1.0, 'Rb': 2.0, 'Cu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cu', 'Eu', 'Rb')\",OTHERS,False\nmp-12170,\"{'S': 10.0, 'Sn': 2.0, 'La': 4.0}\",\"('La', 'S', 'Sn')\",OTHERS,False\nmp-655613,\"{'Tb': 6.0, 'Cs': 2.0, 'Te': 7.0, 'N': 2.0}\",\"('Cs', 'N', 'Tb', 'Te')\",OTHERS,False\nmp-1183141,\"{'Ag': 2.0, 'C': 2.0}\",\"('Ag', 'C')\",OTHERS,False\nmvc-1471,\"{'Y': 2.0, 'Ti': 6.0, 'Se': 4.0, 'Cl': 2.0, 'O': 16.0}\",\"('Cl', 'O', 'Se', 'Ti', 'Y')\",OTHERS,False\nmp-3465,\"{'B': 2.0, 'Rh': 3.0, 'La': 1.0}\",\"('B', 'La', 'Rh')\",OTHERS,False\nmp-1203539,\"{'Gd': 4.0, 'Sb': 4.0, 'Mo': 8.0, 'O': 36.0}\",\"('Gd', 'Mo', 'O', 'Sb')\",OTHERS,False\nmp-1194954,\"{'Na': 4.0, 'Nb': 8.0, 'H': 28.0, 'O': 36.0}\",\"('H', 'Na', 'Nb', 'O')\",OTHERS,False\nmp-569580,\"{'Na': 4.0, 'La': 16.0, 'I': 28.0, 'N': 8.0}\",\"('I', 'La', 'N', 'Na')\",OTHERS,False\nmp-1075132,\"{'Mg': 6.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-979427,\"{'Y': 1.0, 'Ho': 1.0, 'Zn': 2.0}\",\"('Ho', 'Y', 'Zn')\",OTHERS,False\nmp-1079845,\"{'Mn': 3.0, 'Ni': 3.0, 'As': 3.0}\",\"('As', 'Mn', 'Ni')\",OTHERS,False\nmp-1209115,\"{'Sb': 2.0, 'H': 1.0, 'F': 13.0}\",\"('F', 'H', 'Sb')\",OTHERS,False\nmp-780393,\"{'Ho': 12.0, 'B': 12.0, 'O': 36.0}\",\"('B', 'Ho', 'O')\",OTHERS,False\nmp-8769,\"{'Co': 2.0, 'Se': 4.0, 'Rb': 4.0}\",\"('Co', 'Rb', 'Se')\",OTHERS,False\nmp-754502,\"{'Sm': 1.0, 'Y': 1.0, 'O': 2.0}\",\"('O', 'Sm', 'Y')\",OTHERS,False\nmp-779727,\"{'Ti': 34.0, 'N': 12.0, 'O': 48.0}\",\"('N', 'O', 'Ti')\",OTHERS,False\nmp-570113,\"{'Bi': 2.0, 'Au': 4.0}\",\"('Au', 'Bi')\",OTHERS,False\nmp-1019802,\"{'K': 2.0, 'Al': 2.0, 'P': 8.0, 'O': 24.0}\",\"('Al', 'K', 'O', 'P')\",OTHERS,False\nmp-1093563,\"{'Cs': 1.0, 'Rb': 1.0, 'Au': 2.0}\",\"('Au', 'Cs', 'Rb')\",OTHERS,False\nmp-1217793,\"{'Sr': 1.0, 'Ti': 1.0, 'Fe': 3.0, 'Bi': 3.0, 'O': 12.0}\",\"('Bi', 'Fe', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1209862,\"{'P': 4.0, 'N': 4.0, 'F': 24.0}\",\"('F', 'N', 'P')\",OTHERS,False\nmp-559832,\"{'Hg': 12.0, 'S': 8.0, 'Br': 8.0}\",\"('Br', 'Hg', 'S')\",OTHERS,False\nmp-556908,\"{'Nd': 10.0, 'As': 8.0, 'Cl': 6.0, 'O': 24.0}\",\"('As', 'Cl', 'Nd', 'O')\",OTHERS,False\nmvc-12627,\"{'Mg': 2.0, 'V': 4.0, 'O': 8.0}\",\"('Mg', 'O', 'V')\",OTHERS,False\nmp-776547,\"{'Li': 4.0, 'Fe': 2.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1223477,\"{'K': 1.0, 'As': 2.0, 'Rh': 1.0}\",\"('As', 'K', 'Rh')\",OTHERS,False\nmp-758261,\"{'Li': 8.0, 'Cr': 4.0, 'Si': 16.0, 'O': 40.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,False\nmp-676586,\"{'Na': 1.0, 'V': 2.0, 'S': 4.0}\",\"('Na', 'S', 'V')\",OTHERS,False\nmp-531340,\"{'Al': 28.0, 'Mg': 14.0, 'O': 56.0}\",\"('Al', 'Mg', 'O')\",OTHERS,False\nmp-642625,\"{'Hg': 36.0, 'Sb': 3.0, 'Br': 3.0, 'Cl': 6.0, 'O': 18.0}\",\"('Br', 'Cl', 'Hg', 'O', 'Sb')\",OTHERS,False\nmp-773084,\"{'Ba': 6.0, 'Li': 2.0, 'Ti': 7.0, 'Nb': 9.0, 'O': 42.0}\",\"('Ba', 'Li', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-557180,\"{'Ca': 2.0, 'As': 4.0, 'Xe': 8.0, 'F': 40.0}\",\"('As', 'Ca', 'F', 'Xe')\",OTHERS,False\nmp-1202141,\"{'Tm': 24.0, 'Ga': 16.0}\",\"('Ga', 'Tm')\",OTHERS,False\nmp-1195366,\"{'Cu': 8.0, 'Pb': 16.0, 'Cl': 24.0, 'O': 16.0}\",\"('Cl', 'Cu', 'O', 'Pb')\",OTHERS,False\nmp-754279,\"{'Li': 4.0, 'Cr': 3.0, 'Ni': 1.0, 'O': 8.0}\",\"('Cr', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-998988,\"{'Ti': 3.0, 'Ga': 1.0}\",\"('Ga', 'Ti')\",OTHERS,False\nmp-1238924,\"{'Tl': 3.0, 'As': 1.0, 'F': 6.0}\",\"('As', 'F', 'Tl')\",OTHERS,False\nmp-504555,\"{'U': 8.0, 'K': 4.0, 'F': 36.0}\",\"('F', 'K', 'U')\",OTHERS,False\nmp-775263,\"{'Li': 6.0, 'Co': 1.0, 'Ni': 9.0, 'O': 20.0}\",\"('Co', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-1183555,\"{'Ca': 1.0, 'Nd': 1.0, 'Ag': 2.0}\",\"('Ag', 'Ca', 'Nd')\",OTHERS,False\nmp-772665,\"{'Be': 4.0, 'Cr': 4.0, 'O': 16.0}\",\"('Be', 'Cr', 'O')\",OTHERS,False\nmp-581443,\"{'Cs': 24.0, 'U': 12.0, 'Mo': 12.0, 'O': 84.0}\",\"('Cs', 'Mo', 'O', 'U')\",OTHERS,False\nmp-26796,\"{'Cu': 10.0, 'P': 6.0, 'O': 26.0}\",\"('Cu', 'O', 'P')\",OTHERS,False\nmp-1176952,\"{'Li': 12.0, 'Mn': 2.0, 'V': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1196989,\"{'Zn': 2.0, 'P': 4.0, 'H': 16.0, 'O': 20.0}\",\"('H', 'O', 'P', 'Zn')\",OTHERS,False\nmp-42981,\"{'F': 4.0, 'Gd': 4.0, 'Na': 4.0, 'Nb': 4.0, 'O': 24.0, 'Ti': 4.0}\",\"('F', 'Gd', 'Na', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-1101151,\"{'Na': 1.0, 'Ho': 1.0, 'O': 2.0}\",\"('Ho', 'Na', 'O')\",OTHERS,False\nmp-1074455,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-5401,\"{'B': 8.0, 'O': 20.0, 'Sr': 8.0}\",\"('B', 'O', 'Sr')\",OTHERS,False\nmp-1228760,\"{'Ba': 6.0, 'Ca': 6.0, 'Cu': 9.0, 'Hg': 3.0, 'O': 25.0}\",\"('Ba', 'Ca', 'Cu', 'Hg', 'O')\",OTHERS,False\nmp-1195488,\"{'Sr': 2.0, 'Fe': 2.0, 'Ni': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Ni', 'O', 'P', 'Sr')\",OTHERS,False\nmp-560410,\"{'Sr': 4.0, 'U': 2.0, 'Ni': 2.0, 'O': 12.0}\",\"('Ni', 'O', 'Sr', 'U')\",OTHERS,False\nmp-999126,\"{'Tb': 1.0, 'Na': 1.0, 'S': 2.0}\",\"('Na', 'S', 'Tb')\",OTHERS,False\nmp-1232041,\"{'La': 8.0, 'Mg': 4.0, 'Se': 16.0}\",\"('La', 'Mg', 'Se')\",OTHERS,False\nmp-1268088,\"{'Ba': 1.0, 'Al': 1.0, 'Cu': 1.0, 'Ag': 1.0, 'O': 5.0}\",\"('Ag', 'Al', 'Ba', 'Cu', 'O')\",OTHERS,False\nmp-1095972,\"{'Sr': 2.0, 'Hg': 1.0, 'Ge': 1.0}\",\"('Ge', 'Hg', 'Sr')\",OTHERS,False\nmp-4124,\"{'C': 1.0, 'N': 2.0, 'Ca': 1.0}\",\"('C', 'Ca', 'N')\",OTHERS,False\nmp-570175,\"{'Ce': 10.0, 'Si': 6.0}\",\"('Ce', 'Si')\",OTHERS,False\nmp-14970,\"{'B': 2.0, 'O': 10.0, 'Cu': 2.0, 'Ba': 2.0, 'La': 2.0}\",\"('B', 'Ba', 'Cu', 'La', 'O')\",OTHERS,False\nmp-1096469,\"{'Hf': 2.0, 'Re': 1.0, 'Pt': 1.0}\",\"('Hf', 'Pt', 'Re')\",OTHERS,False\nmp-773055,\"{'Li': 6.0, 'Mg': 6.0, 'Ti': 12.0, 'O': 32.0}\",\"('Li', 'Mg', 'O', 'Ti')\",OTHERS,False\nmp-679985,\"{'Ba': 6.0, 'In': 8.0, 'Cu': 6.0, 'O': 24.0}\",\"('Ba', 'Cu', 'In', 'O')\",OTHERS,False\nmp-569136,\"{'K': 6.0, 'Cu': 22.0, 'Te': 32.0}\",\"('Cu', 'K', 'Te')\",OTHERS,False\nmp-17885,\"{'Ge': 8.0, 'Te': 20.0, 'Ba': 8.0}\",\"('Ba', 'Ge', 'Te')\",OTHERS,False\nmp-1214682,\"{'Ba': 12.0, 'Gd': 4.0, 'Al': 8.0, 'O': 30.0}\",\"('Al', 'Ba', 'Gd', 'O')\",OTHERS,False\nmp-1248937,\"{'Y': 4.0, 'Si': 2.0, 'Sb': 2.0, 'W': 13.0, 'O': 28.0}\",\"('O', 'Sb', 'Si', 'W', 'Y')\",OTHERS,False\nmp-977549,\"{'Zr': 2.0, 'Os': 1.0, 'Ru': 1.0}\",\"('Os', 'Ru', 'Zr')\",OTHERS,False\nmp-23776,\"{'H': 32.0, 'Be': 4.0, 'O': 16.0, 'Cl': 8.0}\",\"('Be', 'Cl', 'H', 'O')\",OTHERS,False\nmp-5690,\"{'O': 12.0, 'Sc': 4.0, 'Gd': 4.0}\",\"('Gd', 'O', 'Sc')\",OTHERS,False\nmp-1197552,\"{'U': 8.0, 'Pb': 4.0, 'Se': 20.0}\",\"('Pb', 'Se', 'U')\",OTHERS,False\nmp-17646,\"{'O': 24.0, 'Yb': 8.0, 'W': 4.0}\",\"('O', 'W', 'Yb')\",OTHERS,False\nmp-34508,\"{'S': 8.0, 'Sm': 4.0, 'Sr': 2.0}\",\"('S', 'Sm', 'Sr')\",OTHERS,False\nmp-756639,\"{'Li': 6.0, 'Nb': 3.0, 'O': 3.0, 'F': 15.0}\",\"('F', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-754549,\"{'Na': 4.0, 'Cu': 2.0, 'O': 4.0}\",\"('Cu', 'Na', 'O')\",OTHERS,False\nmp-567908,\"{'Lu': 4.0, 'B': 3.0, 'C': 4.0}\",\"('B', 'C', 'Lu')\",OTHERS,False\nmp-1184869,\"{'Ho': 1.0, 'Lu': 1.0, 'Hg': 2.0}\",\"('Hg', 'Ho', 'Lu')\",OTHERS,False\nmp-1114593,\"{'Rb': 2.0, 'Na': 1.0, 'Nd': 1.0, 'Cl': 6.0}\",\"('Cl', 'Na', 'Nd', 'Rb')\",OTHERS,False\nmp-1073501,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-560029,\"{'Y': 6.0, 'Br': 2.0, 'O': 8.0}\",\"('Br', 'O', 'Y')\",OTHERS,False\nmp-1096815,\"{'Ba': 6.0, 'Ta': 8.0, 'Nb': 2.0, 'O': 30.0}\",\"('Ba', 'Nb', 'O', 'Ta')\",OTHERS,False\nmp-24150,\"{'H': 1.0, 'Li': 1.0, 'O': 3.0, 'Nd': 2.0}\",\"('H', 'Li', 'Nd', 'O')\",OTHERS,False\nmvc-10122,\"{'Mg': 6.0, 'Ni': 12.0, 'O': 24.0}\",\"('Mg', 'Ni', 'O')\",OTHERS,False\nmvc-9680,\"{'Pr': 2.0, 'Zn': 2.0, 'W': 4.0, 'O': 12.0}\",\"('O', 'Pr', 'W', 'Zn')\",OTHERS,False\nmp-4227,\"{'S': 6.0, 'V': 2.0, 'Ba': 2.0}\",\"('Ba', 'S', 'V')\",OTHERS,False\nmp-1227384,\"{'Ca': 2.0, 'Fe': 6.0, 'Si': 8.0, 'O': 24.0}\",\"('Ca', 'Fe', 'O', 'Si')\",OTHERS,False\nmp-3882,\"{'Si': 2.0, 'Rh': 2.0, 'Sm': 1.0}\",\"('Rh', 'Si', 'Sm')\",OTHERS,False\nmp-1184828,\"{'Ho': 1.0, 'Tm': 1.0, 'In': 2.0}\",\"('Ho', 'In', 'Tm')\",OTHERS,False\nmp-1246713,\"{'Sr': 2.0, 'Zn': 4.0, 'N': 4.0}\",\"('N', 'Sr', 'Zn')\",OTHERS,False\nmp-1246665,\"{'Li': 2.0, 'Cr': 4.0, 'N': 6.0}\",\"('Cr', 'Li', 'N')\",OTHERS,False\nmp-1113314,\"{'Na': 2.0, 'Cu': 1.0, 'Sb': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cu', 'Na', 'Sb')\",OTHERS,False\nmp-20497,\"{'Sr': 2.0, 'In': 4.0, 'Ir': 2.0}\",\"('In', 'Ir', 'Sr')\",OTHERS,False\nmp-28749,\"{'Cr': 4.0, 'Xe': 4.0, 'F': 24.0}\",\"('Cr', 'F', 'Xe')\",OTHERS,False\nmp-856,\"{'O': 4.0, 'Sn': 2.0}\",\"('O', 'Sn')\",OTHERS,False\nmp-1186611,\"{'Pm': 1.0, 'Nd': 1.0, 'Ga': 2.0}\",\"('Ga', 'Nd', 'Pm')\",OTHERS,False\nmp-1382,\"{'S': 8.0, 'Ce': 6.0}\",\"('Ce', 'S')\",OTHERS,False\nmp-4756,\"{'Zn': 2.0, 'Sn': 2.0, 'Sb': 4.0}\",\"('Sb', 'Sn', 'Zn')\",OTHERS,False\nmp-1207452,\"{'Zr': 6.0, 'U': 4.0, 'Ge': 8.0}\",\"('Ge', 'U', 'Zr')\",OTHERS,False\nmp-755658,\"{'Ce': 2.0, 'Pr': 2.0, 'O': 4.0}\",\"('Ce', 'O', 'Pr')\",OTHERS,False\nmp-867235,\"{'Li': 1.0, 'Y': 2.0, 'Ir': 1.0}\",\"('Ir', 'Li', 'Y')\",OTHERS,False\nmp-1176835,\"{'Li': 8.0, 'Fe': 7.0, 'P': 12.0, 'W': 1.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'P', 'W')\",OTHERS,False\nmvc-12108,\"{'Ca': 2.0, 'Mn': 4.0, 'O': 8.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,False\nmp-3042,\"{'F': 6.0, 'Si': 1.0, 'K': 2.0}\",\"('F', 'K', 'Si')\",OTHERS,False\nmp-1003403,\"{'Mn': 16.0, 'H': 2.0, 'O': 32.0}\",\"('H', 'Mn', 'O')\",OTHERS,False\nmp-774794,\"{'Li': 20.0, 'Sm': 12.0, 'Sb': 8.0, 'O': 48.0}\",\"('Li', 'O', 'Sb', 'Sm')\",OTHERS,False\nmp-1194649,\"{'Rb': 2.0, 'Na': 4.0, 'Mn': 6.0, 'P': 8.0, 'Cl': 2.0, 'O': 28.0}\",\"('Cl', 'Mn', 'Na', 'O', 'P', 'Rb')\",OTHERS,False\nmp-1178641,\"{'Zn': 1.0, 'Cu': 3.0, 'Ni': 1.0, 'Se': 4.0}\",\"('Cu', 'Ni', 'Se', 'Zn')\",OTHERS,False\nmp-1039529,\"{'Ca': 6.0, 'Mg': 12.0}\",\"('Ca', 'Mg')\",OTHERS,False\nmp-12107,\"{'Ti': 1.0, 'Pt': 3.0}\",\"('Pt', 'Ti')\",OTHERS,False\nmp-1186622,\"{'Pm': 1.0, 'P': 3.0}\",\"('P', 'Pm')\",OTHERS,False\nmp-1211637,\"{'K': 2.0, 'Ca': 2.0, 'P': 2.0, 'H': 2.0, 'O': 8.0}\",\"('Ca', 'H', 'K', 'O', 'P')\",OTHERS,False\nmp-542709,\"{'Eu': 2.0, 'Si': 12.0}\",\"('Eu', 'Si')\",OTHERS,False\nmp-638,\"{'Zn': 5.0, 'Sr': 1.0}\",\"('Sr', 'Zn')\",OTHERS,False\nmp-1183254,\"{'Ag': 6.0, 'S': 2.0}\",\"('Ag', 'S')\",OTHERS,False\nmp-571333,\"{'Ca': 10.0, 'Si': 4.0, 'N': 12.0}\",\"('Ca', 'N', 'Si')\",OTHERS,False\nmp-1064861,\"{'Ga': 1.0, 'C': 3.0}\",\"('C', 'Ga')\",OTHERS,False\nmp-866187,\"{'Ti': 2.0, 'Zn': 1.0, 'Tc': 1.0}\",\"('Tc', 'Ti', 'Zn')\",OTHERS,False\nmp-1224473,\"{'Hf': 2.0, 'Ni': 1.0, 'S': 4.0}\",\"('Hf', 'Ni', 'S')\",OTHERS,False\nmp-556074,\"{'K': 2.0, 'Cu': 3.0, 'Se': 4.0, 'O': 12.0}\",\"('Cu', 'K', 'O', 'Se')\",OTHERS,False\nmp-568827,\"{'Be': 12.0, 'W': 1.0}\",\"('Be', 'W')\",OTHERS,False\nmp-9664,\"{'B': 2.0, 'P': 4.0, 'K': 6.0}\",\"('B', 'K', 'P')\",OTHERS,False\nmvc-12125,\"{'Fe': 4.0, 'O': 8.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-22424,\"{'O': 8.0, 'Na': 4.0, 'S': 2.0}\",\"('Na', 'O', 'S')\",OTHERS,False\nmp-1111572,\"{'K': 2.0, 'Tl': 1.0, 'Pd': 1.0, 'F': 6.0}\",\"('F', 'K', 'Pd', 'Tl')\",OTHERS,False\nmp-1194940,\"{'Na': 16.0, 'Fe': 8.0, 'P': 8.0, 'O': 32.0, 'F': 8.0}\",\"('F', 'Fe', 'Na', 'O', 'P')\",OTHERS,False\nmp-13082,\"{'Si': 1.0, 'Mn': 2.0, 'Co': 1.0}\",\"('Co', 'Mn', 'Si')\",OTHERS,False\nmp-997004,\"{'Ca': 2.0, 'Ag': 2.0, 'O': 4.0}\",\"('Ag', 'Ca', 'O')\",OTHERS,False\nmp-757284,\"{'Mn': 3.0, 'Cr': 1.0, 'Co': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Co', 'Cr', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1213119,\"{'Dy': 2.0, 'Cu': 1.0, 'Si': 4.0, 'O': 12.0}\",\"('Cu', 'Dy', 'O', 'Si')\",OTHERS,False\nmp-530539,\"{'O': 36.0, 'Sr': 16.0, 'U': 8.0}\",\"('O', 'Sr', 'U')\",OTHERS,False\nmp-510662,\"{'Cs': 2.0, 'U': 2.0, 'Ag': 2.0, 'Se': 6.0}\",\"('Ag', 'Cs', 'Se', 'U')\",OTHERS,False\nmp-630391,\"{'Cs': 4.0, 'Zn': 4.0, 'Ag': 4.0, 'C': 16.0, 'S': 16.0, 'N': 16.0}\",\"('Ag', 'C', 'Cs', 'N', 'S', 'Zn')\",OTHERS,False\nmp-1104531,\"{'Sm': 4.0, 'Te': 10.0}\",\"('Sm', 'Te')\",OTHERS,False\nmp-974744,\"{'Nd': 1.0, 'Zn': 2.0, 'Ag': 1.0}\",\"('Ag', 'Nd', 'Zn')\",OTHERS,False\nmp-1198063,\"{'Na': 4.0, 'Ti': 4.0, 'Si': 4.0, 'O': 22.0}\",\"('Na', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-542934,\"{'Cu': 18.0, 'Ce': 2.0, 'Mg': 4.0}\",\"('Ce', 'Cu', 'Mg')\",OTHERS,False\nmp-583193,\"{'Cs': 12.0, 'P': 4.0, 'Se': 16.0}\",\"('Cs', 'P', 'Se')\",OTHERS,False\nmp-686717,\"{'Fe': 2.0, 'Ni': 1.0, 'Se': 4.0}\",\"('Fe', 'Ni', 'Se')\",OTHERS,False\nmp-29398,\"{'I': 6.0, 'Cs': 2.0, 'Hf': 1.0}\",\"('Cs', 'Hf', 'I')\",OTHERS,False\nmp-12666,\"{'Be': 12.0, 'Pd': 1.0}\",\"('Be', 'Pd')\",OTHERS,False\nmp-1184880,\"{'K': 3.0, 'Hf': 1.0}\",\"('Hf', 'K')\",OTHERS,False\nmp-1229278,\"{'Al': 4.0, 'H': 50.0, 'S': 7.0, 'O': 52.0}\",\"('Al', 'H', 'O', 'S')\",OTHERS,False\nmp-562965,\"{'Cs': 4.0, 'Cr': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Cr', 'Cs', 'O', 'P')\",OTHERS,False\nmp-1203391,\"{'K': 64.0, 'Sr': 16.0, 'Si': 48.0, 'O': 144.0}\",\"('K', 'O', 'Si', 'Sr')\",OTHERS,False\nmp-1215290,\"{'Zr': 2.0, 'Nb': 2.0, 'Fe': 8.0}\",\"('Fe', 'Nb', 'Zr')\",OTHERS,False\nmp-1216039,\"{'Zr': 2.0, 'Ti': 3.0, 'Pb': 5.0, 'O': 15.0}\",\"('O', 'Pb', 'Ti', 'Zr')\",OTHERS,False\nmp-1185930,\"{'Mn': 6.0, 'Sb': 2.0}\",\"('Mn', 'Sb')\",OTHERS,False\nmp-13525,\"{'In': 3.0, 'Ho': 3.0, 'Ir': 3.0}\",\"('Ho', 'In', 'Ir')\",OTHERS,False\nmp-1227614,\"{'Ca': 4.0, 'Mg': 3.0, 'Si': 8.0, 'Ni': 1.0, 'O': 24.0}\",\"('Ca', 'Mg', 'Ni', 'O', 'Si')\",OTHERS,False\nmp-1183913,\"{'Cs': 1.0, 'Pd': 1.0, 'O': 3.0}\",\"('Cs', 'O', 'Pd')\",OTHERS,False\nmp-1232353,\"{'Sr': 6.0, 'Nd': 2.0, 'Ta': 2.0, 'Al': 6.0, 'O': 24.0}\",\"('Al', 'Nd', 'O', 'Sr', 'Ta')\",OTHERS,False\nmp-1196488,\"{'Zn': 8.0, 'H': 40.0, 'Cl': 16.0, 'O': 20.0}\",\"('Cl', 'H', 'O', 'Zn')\",OTHERS,False\nmp-746730,\"{'Fe': 4.0, 'P': 16.0, 'O': 44.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-755959,\"{'Na': 4.0, 'Li': 4.0, 'O': 4.0}\",\"('Li', 'Na', 'O')\",OTHERS,False\nmp-800,\"{'B': 2.0, 'Tm': 1.0}\",\"('B', 'Tm')\",OTHERS,False\nmp-1202414,\"{'Nd': 40.0, 'Se': 56.0, 'O': 4.0}\",\"('Nd', 'O', 'Se')\",OTHERS,False\nmp-1213254,\"{'Cs': 2.0, 'Gd': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Cs', 'Gd', 'O', 'W')\",OTHERS,False\nmp-24179,\"{'H': 24.0, 'C': 8.0, 'N': 4.0, 'O': 16.0, 'S': 8.0, 'K': 4.0}\",\"('C', 'H', 'K', 'N', 'O', 'S')\",OTHERS,False\nmp-1078860,\"{'Sr': 2.0, 'Ge': 2.0, 'Au': 6.0}\",\"('Au', 'Ge', 'Sr')\",OTHERS,False\nmp-1180133,\"{'Na': 1.0, 'Ca': 1.0, 'H': 6.0, 'Ir': 1.0}\",\"('Ca', 'H', 'Ir', 'Na')\",OTHERS,False\nmp-759404,\"{'Li': 6.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1207695,\"{'Tm': 4.0, 'S': 4.0, 'I': 4.0}\",\"('I', 'S', 'Tm')\",OTHERS,False\nmp-1103788,\"{'Sr': 2.0, 'Ni': 4.0, 'P': 8.0}\",\"('Ni', 'P', 'Sr')\",OTHERS,False\nmp-1255862,\"{'Mg': 8.0, 'Si': 14.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1219137,\"{'Sm': 2.0, 'Ga': 3.0, 'Cu': 1.0}\",\"('Cu', 'Ga', 'Sm')\",OTHERS,False\nmp-1222005,\"{'Mn': 3.0, 'Ge': 1.0}\",\"('Ge', 'Mn')\",OTHERS,False\nmp-849328,\"{'Li': 4.0, 'Mn': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1080815,\"{'Zr': 3.0, 'Sn': 3.0, 'Rh': 3.0}\",\"('Rh', 'Sn', 'Zr')\",OTHERS,False\nmp-1211549,\"{'La': 12.0, 'Sb': 4.0, 'O': 28.0}\",\"('La', 'O', 'Sb')\",OTHERS,False\nmp-1079542,\"{'Co': 3.0, 'Ni': 3.0, 'As': 3.0}\",\"('As', 'Co', 'Ni')\",OTHERS,False\nmp-676893,\"{'Ca': 4.0, 'Th': 1.0, 'F': 12.0}\",\"('Ca', 'F', 'Th')\",OTHERS,False\nmp-1182283,\"{'Ca': 4.0, 'Mn': 2.0, 'As': 4.0, 'O': 20.0}\",\"('As', 'Ca', 'Mn', 'O')\",OTHERS,False\nmp-1207424,\"{'Zr': 8.0, 'In': 4.0, 'Au': 8.0}\",\"('Au', 'In', 'Zr')\",OTHERS,False\nmp-774920,\"{'Li': 2.0, 'Fe': 2.0, 'Sb': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Sb')\",OTHERS,False\nmp-1214265,\"{'Bi': 12.0, 'Br': 5.0, 'O': 16.0}\",\"('Bi', 'Br', 'O')\",OTHERS,False\nmp-758147,\"{'Li': 4.0, 'Cu': 4.0, 'P': 12.0, 'O': 36.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-557981,\"{'K': 24.0, 'Co': 24.0, 'P': 24.0, 'O': 96.0}\",\"('Co', 'K', 'O', 'P')\",OTHERS,False\nmp-1176362,\"{'Na': 6.0, 'Li': 6.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'Na', 'O', 'P')\",OTHERS,False\nmp-961655,\"{'Y': 1.0, 'Cd': 1.0, 'Ga': 1.0}\",\"('Cd', 'Ga', 'Y')\",OTHERS,False\nmp-1215709,\"{'Y': 1.0, 'Zr': 1.0, 'Fe': 4.0}\",\"('Fe', 'Y', 'Zr')\",OTHERS,False\nmp-1214488,\"{'Ba': 8.0, 'As': 6.0}\",\"('As', 'Ba')\",OTHERS,False\nmp-505669,\"{'La': 8.0, 'Co': 8.0, 'O': 20.0}\",\"('Co', 'La', 'O')\",OTHERS,False\nmp-28575,\"{'S': 16.0, 'Cl': 12.0, 'W': 2.0}\",\"('Cl', 'S', 'W')\",OTHERS,False\nmp-17702,\"{'Yb': 8.0, 'Si': 4.0, 'O': 20.0}\",\"('O', 'Si', 'Yb')\",OTHERS,False\nmp-565518,\"{'Na': 2.0, 'V': 6.0, 'Fe': 6.0, 'O': 24.0}\",\"('Fe', 'Na', 'O', 'V')\",OTHERS,False\nmp-1004373,\"{'Li': 4.0, 'Mn': 4.0, 'O': 8.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1174854,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1104073,\"{'C': 11.0, 'N': 4.0}\",\"('C', 'N')\",OTHERS,False\nmp-1029176,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-766923,\"{'Li': 4.0, 'V': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Li', 'O', 'Si', 'V')\",OTHERS,False\nmp-1194852,\"{'Na': 8.0, 'Cd': 8.0, 'P': 24.0, 'H': 64.0, 'O': 80.0}\",\"('Cd', 'H', 'Na', 'O', 'P')\",OTHERS,False\nmp-27581,\"{'Pb': 7.0, 'Cl': 2.0, 'F': 12.0}\",\"('Cl', 'F', 'Pb')\",OTHERS,False\nmp-652036,\"{'Gd': 4.0, 'Fe': 20.0, 'P': 12.0}\",\"('Fe', 'Gd', 'P')\",OTHERS,False\nmp-29034,\"{'Ge': 8.0, 'Te': 24.0, 'Tl': 16.0}\",\"('Ge', 'Te', 'Tl')\",OTHERS,False\nmp-1009830,\"{'Be': 2.0, 'Zn': 1.0}\",\"('Be', 'Zn')\",OTHERS,False\nmp-1219533,\"{'Re': 1.0, 'Ir': 1.0}\",\"('Ir', 'Re')\",OTHERS,False\nmp-1227624,\"{'Fe': 4.0, 'Cu': 26.0, 'Ge': 4.0, 'S': 32.0}\",\"('Cu', 'Fe', 'Ge', 'S')\",OTHERS,False\nmp-1076445,\"{'Sr': 8.0, 'Mn': 1.0, 'Fe': 7.0, 'O': 24.0}\",\"('Fe', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-694881,\"{'Na': 2.0, 'Nd': 6.0, 'Ti': 6.0, 'Mn': 2.0, 'O': 24.0}\",\"('Mn', 'Na', 'Nd', 'O', 'Ti')\",OTHERS,False\nmp-636950,\"{'Mo': 8.0, 'P': 8.0, 'O': 44.0}\",\"('Mo', 'O', 'P')\",OTHERS,False\nmp-1210917,\"{'Lu': 4.0, 'Sn': 4.0, 'F': 28.0}\",\"('F', 'Lu', 'Sn')\",OTHERS,False\nmp-1175736,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1186819,\"{'Rb': 4.0, 'Mg': 2.0}\",\"('Mg', 'Rb')\",OTHERS,False\nmp-5673,\"{'P': 16.0, 'Ni': 2.0, 'Mo': 2.0}\",\"('Mo', 'Ni', 'P')\",OTHERS,False\nmp-1019781,\"{'K': 4.0, 'Na': 6.0, 'P': 6.0, 'O': 20.0}\",\"('K', 'Na', 'O', 'P')\",OTHERS,False\nmp-1226346,\"{'Cr': 3.0, 'Te': 2.0, 'Se': 2.0}\",\"('Cr', 'Se', 'Te')\",OTHERS,False\nmp-554930,\"{'Nb': 8.0, 'Ag': 4.0, 'P': 4.0, 'S': 40.0}\",\"('Ag', 'Nb', 'P', 'S')\",OTHERS,False\nmp-704492,\"{'Mn': 16.0, 'P': 16.0, 'O': 64.0}\",\"('Mn', 'O', 'P')\",OTHERS,False\nmp-1239130,\"{'Nb': 2.0, 'Cr': 6.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cr', 'Cu', 'Nb', 'S')\",OTHERS,False\nmp-1096686,\"{'Tl': 1.0, 'Bi': 1.0, 'Pb': 2.0}\",\"('Bi', 'Pb', 'Tl')\",OTHERS,False\nmp-1222926,\"{'La': 1.0, 'Cu': 1.0, 'Si': 2.0, 'Ni': 1.0}\",\"('Cu', 'La', 'Ni', 'Si')\",OTHERS,False\nmp-28137,\"{'O': 8.0, 'Cl': 2.0, 'Co': 1.0}\",\"('Cl', 'Co', 'O')\",OTHERS,False\nmp-867175,\"{'Sm': 4.0, 'Ag': 4.0, 'As': 8.0}\",\"('Ag', 'As', 'Sm')\",OTHERS,False\nmp-22829,\"{'B': 32.0, 'O': 56.0, 'Co': 8.0}\",\"('B', 'Co', 'O')\",OTHERS,False\nmp-571055,\"{'Fe': 11.0, 'Mo': 6.0, 'C': 5.0}\",\"('C', 'Fe', 'Mo')\",OTHERS,False\nmp-1219723,\"{'Pr': 1.0, 'Th': 1.0, 'C': 1.0, 'N': 1.0}\",\"('C', 'N', 'Pr', 'Th')\",OTHERS,False\nmp-1183940,\"{'Cs': 6.0, 'K': 2.0}\",\"('Cs', 'K')\",OTHERS,False\nmp-756426,\"{'Zr': 2.0, 'Nb': 2.0, 'O': 8.0}\",\"('Nb', 'O', 'Zr')\",OTHERS,False\nmp-1097154,\"{'Y': 2.0, 'Hg': 1.0, 'Au': 1.0}\",\"('Au', 'Hg', 'Y')\",OTHERS,False\nmp-760798,\"{'Li': 8.0, 'Cu': 4.0, 'F': 20.0}\",\"('Cu', 'F', 'Li')\",OTHERS,False\nmp-1076037,\"{'Eu': 4.0, 'Ti': 4.0, 'O': 10.0}\",\"('Eu', 'O', 'Ti')\",OTHERS,False\nmp-1020020,\"{'Li': 8.0, 'N': 1.0, 'O': 3.0}\",\"('Li', 'N', 'O')\",OTHERS,False\nmp-27957,\"{'O': 8.0, 'Ni': 2.0, 'Ba': 6.0}\",\"('Ba', 'Ni', 'O')\",OTHERS,False\nmp-1224124,\"{'In': 4.0, 'P': 6.0, 'Pb': 2.0, 'O': 23.0}\",\"('In', 'O', 'P', 'Pb')\",OTHERS,False\nmp-1212113,\"{'I': 8.0, 'N': 12.0}\",\"('I', 'N')\",OTHERS,False\nmp-1193402,\"{'Eu': 6.0, 'Ga': 8.0, 'Ge': 12.0}\",\"('Eu', 'Ga', 'Ge')\",OTHERS,False\nmp-1222094,\"{'Mg': 4.0, 'Te': 3.0, 'Se': 1.0}\",\"('Mg', 'Se', 'Te')\",OTHERS,False\nmp-1939,\"{'Ni': 4.0, 'Er': 2.0}\",\"('Er', 'Ni')\",OTHERS,False\nmp-542817,\"{'U': 8.0, 'Pt': 8.0}\",\"('Pt', 'U')\",OTHERS,False\nmp-1037497,\"{'Mg': 30.0, 'Zn': 1.0, 'Co': 1.0, 'O': 32.0}\",\"('Co', 'Mg', 'O', 'Zn')\",OTHERS,False\nmp-1174772,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-541111,\"{'Ga': 4.0, 'Al': 4.0, 'Cl': 16.0}\",\"('Al', 'Cl', 'Ga')\",OTHERS,False\nmp-973631,\"{'Lu': 2.0, 'Al': 1.0, 'Ru': 1.0}\",\"('Al', 'Lu', 'Ru')\",OTHERS,False\nmp-1220274,\"{'Nd': 2.0, 'Y': 1.0}\",\"('Nd', 'Y')\",OTHERS,False\nmp-1176630,\"{'Li': 4.0, 'Mn': 4.0, 'F': 12.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-1174881,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1246137,\"{'Sr': 32.0, 'Mn': 16.0, 'N': 32.0}\",\"('Mn', 'N', 'Sr')\",OTHERS,False\nmp-1035244,\"{'Mg': 14.0, 'Cu': 1.0, 'C': 1.0, 'O': 16.0}\",\"('C', 'Cu', 'Mg', 'O')\",OTHERS,False\nmp-1176247,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-695948,\"{'P': 12.0, 'H': 48.0, 'S': 12.0, 'N': 12.0, 'O': 24.0}\",\"('H', 'N', 'O', 'P', 'S')\",OTHERS,False\nmp-556303,\"{'Cu': 2.0, 'Bi': 4.0, 'Se': 8.0, 'O': 24.0}\",\"('Bi', 'Cu', 'O', 'Se')\",OTHERS,False\nmp-504263,\"{'Li': 14.0, 'Co': 9.0, 'P': 16.0, 'O': 56.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,False\nmp-779434,\"{'Li': 20.0, 'La': 12.0, 'Nb': 8.0, 'O': 48.0}\",\"('La', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-757136,\"{'Li': 2.0, 'Co': 3.0, 'Sn': 1.0, 'O': 8.0}\",\"('Co', 'Li', 'O', 'Sn')\",OTHERS,False\nmp-1032467,\"{'Li': 1.0, 'Mg': 6.0, 'Fe': 1.0, 'O': 8.0}\",\"('Fe', 'Li', 'Mg', 'O')\",OTHERS,False\nmp-1184081,\"{'Er': 2.0, 'Ru': 1.0, 'Au': 1.0}\",\"('Au', 'Er', 'Ru')\",OTHERS,False\nmp-780624,\"{'V': 6.0, 'O': 5.0, 'F': 19.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-570584,\"{'Ta': 2.0, 'Si': 4.0, 'H': 70.0, 'C': 24.0, 'N': 8.0}\",\"('C', 'H', 'N', 'Si', 'Ta')\",OTHERS,False\nmp-18560,\"{'O': 16.0, 'F': 4.0, 'P': 4.0, 'Np': 4.0}\",\"('F', 'Np', 'O', 'P')\",OTHERS,False\nmp-1245128,\"{'Mg': 40.0, 'O': 40.0}\",\"('Mg', 'O')\",OTHERS,False\nmp-1154546,\"{'Ca': 4.0, 'Si': 16.0, 'Sn': 4.0, 'O': 40.0}\",\"('Ca', 'O', 'Si', 'Sn')\",OTHERS,False\nmp-1223844,\"{'In': 2.0, 'Sb': 1.0, 'As': 1.0}\",\"('As', 'In', 'Sb')\",OTHERS,False\nmvc-8814,\"{'Ti': 4.0, 'Zn': 2.0, 'P': 6.0, 'O': 24.0}\",\"('O', 'P', 'Ti', 'Zn')\",OTHERS,False\nmp-9972,\"{'Si': 2.0, 'Y': 2.0}\",\"('Si', 'Y')\",OTHERS,False\nmp-1073692,\"{'Mg': 6.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1030535,\"{'Mo': 2.0, 'W': 2.0, 'Se': 6.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-30977,\"{'H': 48.0, 'B': 40.0, 'Br': 8.0}\",\"('B', 'Br', 'H')\",OTHERS,False\nmp-554909,\"{'Ba': 6.0, 'Mg': 2.0, 'Ir': 4.0, 'O': 18.0}\",\"('Ba', 'Ir', 'Mg', 'O')\",OTHERS,False\nmp-1216804,\"{'Tl': 2.0, 'V': 6.0, 'Cd': 8.0, 'O': 24.0}\",\"('Cd', 'O', 'Tl', 'V')\",OTHERS,False\nmp-1184464,\"{'Eu': 2.0, 'Zn': 1.0, 'In': 1.0}\",\"('Eu', 'In', 'Zn')\",OTHERS,False\nmp-20726,\"{'Ca': 4.0, 'Sr': 4.0, 'Sn': 4.0}\",\"('Ca', 'Sn', 'Sr')\",OTHERS,False\nmp-560710,\"{'Cs': 2.0, 'Tl': 1.0, 'Mo': 1.0, 'F': 6.0}\",\"('Cs', 'F', 'Mo', 'Tl')\",OTHERS,False\nmp-5893,\"{'O': 3.0, 'Si': 1.0, 'Ca': 1.0}\",\"('Ca', 'O', 'Si')\",OTHERS,False\nmp-759285,\"{'Li': 4.0, 'Fe': 7.0, 'O': 2.0, 'F': 14.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-755738,\"{'Rb': 8.0, 'O': 4.0}\",\"('O', 'Rb')\",OTHERS,False\nmp-772636,\"{'Na': 2.0, 'Li': 10.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'Na', 'O', 'P')\",OTHERS,False\nmp-774649,\"{'V': 3.0, 'Ni': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Ni', 'O', 'P', 'V')\",OTHERS,False\nmp-553968,\"{'Mo': 8.0, 'P': 8.0, 'Cl': 40.0, 'O': 24.0}\",\"('Cl', 'Mo', 'O', 'P')\",OTHERS,False\nmp-42255,\"{'Ca': 2.0, 'F': 2.0, 'Na': 2.0, 'Nb': 4.0, 'O': 12.0}\",\"('Ca', 'F', 'Na', 'Nb', 'O')\",OTHERS,False\nmp-1094096,\"{'Ni': 4.0, 'O': 3.0}\",\"('Ni', 'O')\",OTHERS,False\nmp-1217321,\"{'Th': 2.0, 'Fe': 1.0, 'Si': 3.0}\",\"('Fe', 'Si', 'Th')\",OTHERS,False\nmp-1202377,\"{'Zr': 4.0, 'Te': 8.0, 'Br': 4.0, 'O': 22.0}\",\"('Br', 'O', 'Te', 'Zr')\",OTHERS,False\nmp-1094407,\"{'Y': 6.0, 'Mg': 6.0}\",\"('Mg', 'Y')\",OTHERS,False\nmp-762515,\"{'Li': 12.0, 'Cu': 18.0, 'C': 18.0, 'O': 54.0}\",\"('C', 'Cu', 'Li', 'O')\",OTHERS,False\nmp-1196505,\"{'Na': 18.0, 'Fe': 2.0, 'Mo': 12.0, 'O': 48.0}\",\"('Fe', 'Mo', 'Na', 'O')\",OTHERS,False\nmp-866517,\"{'Ce': 6.0, 'Mg': 2.0, 'Al': 2.0, 'S': 14.0}\",\"('Al', 'Ce', 'Mg', 'S')\",OTHERS,False\nmp-13573,\"{'Si': 7.0, 'Sc': 5.0, 'Pt': 9.0}\",\"('Pt', 'Sc', 'Si')\",OTHERS,False\nmp-1222550,\"{'Mg': 4.0, 'Fe': 14.0, 'O': 24.0}\",\"('Fe', 'Mg', 'O')\",OTHERS,False\nmp-1227581,\"{'Cd': 2.0, 'Cu': 10.0, 'Sb': 4.0, 'S': 13.0}\",\"('Cd', 'Cu', 'S', 'Sb')\",OTHERS,False\nmp-1009652,\"{'Rh': 1.0, 'C': 1.0}\",\"('C', 'Rh')\",OTHERS,False\nmp-1180318,\"{'Na': 8.0, 'P': 8.0, 'O': 28.0}\",\"('Na', 'O', 'P')\",OTHERS,False\nmp-1226733,\"{'Cd': 1.0, 'Hg': 1.0, 'Se': 2.0}\",\"('Cd', 'Hg', 'Se')\",OTHERS,False\nmp-616173,\"{'Ce': 20.0, 'Ni': 4.0, 'Ge': 8.0}\",\"('Ce', 'Ge', 'Ni')\",OTHERS,False\nmp-628,\"{'Co': 2.0, 'Zr': 4.0}\",\"('Co', 'Zr')\",OTHERS,False\nmp-1078567,\"{'Sr': 2.0, 'Bi': 4.0, 'Pd': 4.0}\",\"('Bi', 'Pd', 'Sr')\",OTHERS,False\nmp-765523,\"{'Ca': 7.0, 'Cu': 17.0, 'O': 24.0}\",\"('Ca', 'Cu', 'O')\",OTHERS,False\nmp-17561,\"{'Mn': 2.0, 'Nb': 4.0, 'Zn': 4.0, 'O': 16.0}\",\"('Mn', 'Nb', 'O', 'Zn')\",OTHERS,False\nmp-1175424,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-31249,\"{'O': 22.0, 'Te': 8.0, 'La': 4.0}\",\"('La', 'O', 'Te')\",OTHERS,False\nmp-561259,\"{'Na': 12.0, 'Nb': 4.0, 'O': 4.0, 'F': 24.0}\",\"('F', 'Na', 'Nb', 'O')\",OTHERS,False\nmp-1238863,\"{'Ti': 4.0, 'Cr': 4.0, 'Ag': 4.0, 'S': 16.0}\",\"('Ag', 'Cr', 'S', 'Ti')\",OTHERS,False\nmp-1104388,\"{'Y': 9.0, 'Pd': 6.0}\",\"('Pd', 'Y')\",OTHERS,False\nmp-6227,\"{'O': 14.0, 'Si': 4.0, 'Ca': 4.0, 'Zn': 2.0}\",\"('Ca', 'O', 'Si', 'Zn')\",OTHERS,False\nmp-979986,\"{'Yb': 2.0, 'Ba': 1.0, 'Ca': 1.0}\",\"('Ba', 'Ca', 'Yb')\",OTHERS,False\nmp-1215708,\"{'Y': 1.0, 'U': 1.0, 'Sb': 2.0}\",\"('Sb', 'U', 'Y')\",OTHERS,False\nmp-1182880,\"{'Al': 1.0, 'Cu': 3.0, 'Hg': 1.0, 'Se': 4.0}\",\"('Al', 'Cu', 'Hg', 'Se')\",OTHERS,False\nmp-1224397,\"{'K': 3.0, 'Ge': 7.0, 'H': 1.0, 'O': 20.0}\",\"('Ge', 'H', 'K', 'O')\",OTHERS,False\nmp-1215485,\"{'Zn': 1.0, 'In': 2.0, 'Ge': 1.0, 'As': 4.0}\",\"('As', 'Ge', 'In', 'Zn')\",OTHERS,False\nmp-1183620,\"{'Ca': 1.0, 'Eu': 3.0}\",\"('Ca', 'Eu')\",OTHERS,False\nmp-1177363,\"{'Li': 4.0, 'Mn': 3.0, 'Sn': 3.0, 'Sb': 2.0, 'O': 16.0}\",\"('Li', 'Mn', 'O', 'Sb', 'Sn')\",OTHERS,False\nmp-1214367,\"{'Ba': 2.0, 'Tb': 2.0, 'Fe': 8.0, 'O': 14.0}\",\"('Ba', 'Fe', 'O', 'Tb')\",OTHERS,False\nmp-1187718,\"{'Y': 2.0, 'Cu': 1.0, 'Os': 1.0}\",\"('Cu', 'Os', 'Y')\",OTHERS,False\nmp-675430,\"{'Sm': 8.0, 'Ag': 4.0, 'Se': 14.0}\",\"('Ag', 'Se', 'Sm')\",OTHERS,False\nmp-1112048,\"{'K': 2.0, 'Ce': 1.0, 'Cu': 1.0, 'I': 6.0}\",\"('Ce', 'Cu', 'I', 'K')\",OTHERS,False\nmp-849291,\"{'Li': 20.0, 'Fe': 12.0, 'F': 56.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-20478,\"{'Si': 2.0, 'Ti': 2.0, 'Lu': 2.0}\",\"('Lu', 'Si', 'Ti')\",OTHERS,False\nmp-1197173,\"{'Pr': 12.0, 'Fe': 26.0, 'Sn': 2.0}\",\"('Fe', 'Pr', 'Sn')\",OTHERS,False\nmp-21099,\"{'O': 8.0, 'S': 2.0, 'K': 2.0, 'Pb': 1.0}\",\"('K', 'O', 'Pb', 'S')\",OTHERS,False\nmp-22433,\"{'Si': 4.0, 'Ir': 4.0, 'Np': 2.0}\",\"('Ir', 'Np', 'Si')\",OTHERS,False\nmp-5517,\"{'P': 2.0, 'Ni': 2.0, 'Tb': 1.0}\",\"('Ni', 'P', 'Tb')\",OTHERS,False\nmp-864931,\"{'Mg': 4.0, 'Co': 8.0}\",\"('Co', 'Mg')\",OTHERS,False\nmp-776654,\"{'Li': 7.0, 'V': 5.0, 'O': 12.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1190013,\"{'Ti': 8.0, 'Ni': 8.0}\",\"('Ni', 'Ti')\",OTHERS,False\nmp-1176150,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1225792,\"{'Er': 5.0, 'P': 12.0, 'Ir': 19.0}\",\"('Er', 'Ir', 'P')\",OTHERS,False\nmp-1192413,\"{'Cs': 2.0, 'In': 2.0, 'Te': 6.0, 'O': 16.0}\",\"('Cs', 'In', 'O', 'Te')\",OTHERS,False\nmp-780338,\"{'Li': 8.0, 'Cr': 8.0, 'S': 16.0, 'O': 64.0}\",\"('Cr', 'Li', 'O', 'S')\",OTHERS,False\nmp-1104185,\"{'Ti': 1.0, 'Tl': 1.0, 'V': 4.0, 'S': 8.0}\",\"('S', 'Ti', 'Tl', 'V')\",OTHERS,False\nmp-1026910,\"{'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-744711,\"{'Zn': 2.0, 'Cr': 2.0, 'H': 56.0, 'C': 12.0, 'N': 24.0, 'Cl': 10.0, 'O': 16.0}\",\"('C', 'Cl', 'Cr', 'H', 'N', 'O', 'Zn')\",OTHERS,False\nmp-1020645,\"{'Na': 8.0, 'N': 1.0, 'O': 3.0}\",\"('N', 'Na', 'O')\",OTHERS,False\nmp-1079819,\"{'Lu': 3.0, 'Al': 3.0, 'Ni': 3.0}\",\"('Al', 'Lu', 'Ni')\",OTHERS,False\nmp-1223512,\"{'K': 1.0, 'Mg': 3.0, 'Al': 1.0, 'Si': 3.0, 'O': 10.0, 'F': 2.0}\",\"('Al', 'F', 'K', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-26785,\"{'Li': 4.0, 'O': 28.0, 'P': 8.0, 'Ni': 4.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-767961,\"{'Ti': 3.0, 'Mn': 2.0, 'P': 6.0, 'W': 1.0, 'O': 24.0}\",\"('Mn', 'O', 'P', 'Ti', 'W')\",OTHERS,False\nmp-752400,\"{'Ce': 4.0, 'Sm': 4.0, 'O': 14.0}\",\"('Ce', 'O', 'Sm')\",OTHERS,False\nmp-611448,{'C': 12.0},\"('C',)\",OTHERS,False\nmp-1186527,\"{'Pm': 6.0, 'Nd': 2.0}\",\"('Nd', 'Pm')\",OTHERS,False\nmp-12532,\"{'P': 1.0, 'S': 4.0, 'K': 1.0, 'Ag': 2.0}\",\"('Ag', 'K', 'P', 'S')\",OTHERS,False\nmp-1225978,\"{'La': 2.0, 'In': 3.0, 'Sn': 3.0}\",\"('In', 'La', 'Sn')\",OTHERS,False\nmp-10837,\"{'F': 28.0, 'Na': 8.0, 'Mg': 4.0, 'In': 4.0}\",\"('F', 'In', 'Mg', 'Na')\",OTHERS,False\nmp-1211485,\"{'La': 12.0, 'Au': 4.0, 'I': 12.0}\",\"('Au', 'I', 'La')\",OTHERS,False\nmp-30051,\"{'C': 4.0, 'Si': 12.0, 'Cl': 28.0}\",\"('C', 'Cl', 'Si')\",OTHERS,False\nmp-767722,\"{'V': 1.0, 'Fe': 1.0, 'P': 4.0, 'O': 14.0}\",\"('Fe', 'O', 'P', 'V')\",OTHERS,False\nmp-1076424,\"{'Sr': 6.0, 'Ca': 2.0, 'Fe': 8.0, 'O': 24.0}\",\"('Ca', 'Fe', 'O', 'Sr')\",OTHERS,False\nmp-1222533,\"{'Li': 4.0, 'Si': 1.0, 'Ge': 3.0, 'O': 10.0}\",\"('Ge', 'Li', 'O', 'Si')\",OTHERS,False\nmp-861664,\"{'Li': 1.0, 'Tm': 1.0, 'Au': 2.0}\",\"('Au', 'Li', 'Tm')\",OTHERS,False\nmp-1201999,\"{'Y': 40.0, 'Ir': 8.0, 'Br': 72.0}\",\"('Br', 'Ir', 'Y')\",OTHERS,False\nmp-699473,\"{'Li': 4.0, 'B': 24.0, 'H': 52.0, 'O': 14.0}\",\"('B', 'H', 'Li', 'O')\",OTHERS,False\nmp-1147612,\"{'Mg': 1.0, 'Cu': 3.0, 'N': 3.0}\",\"('Cu', 'Mg', 'N')\",OTHERS,False\nmp-778259,\"{'Pr': 8.0, 'Hf': 8.0, 'O': 32.0}\",\"('Hf', 'O', 'Pr')\",OTHERS,False\nmvc-8266,\"{'Ca': 4.0, 'Fe': 4.0, 'Ni': 4.0, 'P': 8.0, 'O': 36.0}\",\"('Ca', 'Fe', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1220987,\"{'Na': 1.0, 'Li': 1.0, 'Mn': 1.0, 'S': 2.0}\",\"('Li', 'Mn', 'Na', 'S')\",OTHERS,False\nmp-1218309,\"{'Sr': 1.0, 'La': 2.0, 'Ce': 1.0, 'Mn': 2.0, 'Cr': 2.0, 'O': 12.0}\",\"('Ce', 'Cr', 'La', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-686311,\"{'Na': 7.0, 'Bi': 3.0, 'P': 12.0, 'Pb': 10.0, 'O': 48.0}\",\"('Bi', 'Na', 'O', 'P', 'Pb')\",OTHERS,False\nmvc-13997,\"{'Al': 2.0, 'V': 2.0, 'O': 6.0}\",\"('Al', 'O', 'V')\",OTHERS,False\nmp-1203517,\"{'Cs': 4.0, 'H': 24.0, 'C': 8.0, 'S': 8.0, 'N': 4.0, 'O': 16.0}\",\"('C', 'Cs', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-1180715,\"{'Na': 12.0, 'As': 4.0, 'H': 64.0, 'S': 16.0, 'O': 32.0}\",\"('As', 'H', 'Na', 'O', 'S')\",OTHERS,False\nmp-1205702,\"{'Co': 1.0, 'Re': 1.0, 'Pb': 2.0, 'O': 6.0}\",\"('Co', 'O', 'Pb', 'Re')\",OTHERS,False\nmp-1197745,\"{'Cs': 2.0, 'Ti': 4.0, 'P': 6.0, 'O': 20.0, 'F': 8.0}\",\"('Cs', 'F', 'O', 'P', 'Ti')\",OTHERS,False\nmp-600190,\"{'La': 4.0, 'H': 96.0, 'C': 12.0, 'N': 12.0, 'Cl': 24.0, 'O': 12.0}\",\"('C', 'Cl', 'H', 'La', 'N', 'O')\",OTHERS,False\nmp-978513,\"{'Sm': 1.0, 'Er': 1.0, 'Mg': 2.0}\",\"('Er', 'Mg', 'Sm')\",OTHERS,False\nmp-771347,\"{'Li': 11.0, 'Ti': 4.0, 'Fe': 9.0, 'O': 32.0}\",\"('Fe', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-669445,\"{'Cu': 2.0, 'Bi': 8.0, 'Pb': 6.0, 'S': 19.0}\",\"('Bi', 'Cu', 'Pb', 'S')\",OTHERS,False\nmp-1174194,\"{'Li': 6.0, 'Mn': 2.0, 'Co': 2.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-541913,\"{'Hg': 1.0, 'Fe': 1.0, 'S': 4.0, 'C': 4.0, 'N': 4.0}\",\"('C', 'Fe', 'Hg', 'N', 'S')\",OTHERS,False\nmp-553919,\"{'Ag': 6.0, 'Mo': 2.0, 'Cl': 1.0, 'O': 7.0, 'F': 3.0}\",\"('Ag', 'Cl', 'F', 'Mo', 'O')\",OTHERS,False\nmp-20922,\"{'C': 1.0, 'Ga': 1.0, 'Dy': 3.0}\",\"('C', 'Dy', 'Ga')\",OTHERS,False\nmp-546079,\"{'C': 2.0, 'O': 6.0, 'Mg': 2.0}\",\"('C', 'Mg', 'O')\",OTHERS,False\nmp-1226134,\"{'Cs': 4.0, 'Tl': 1.0, 'Sb': 1.0, 'Cl': 12.0}\",\"('Cl', 'Cs', 'Sb', 'Tl')\",OTHERS,False\nmp-758100,\"{'Li': 4.0, 'Cu': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-1080525,\"{'Fe': 4.0, 'B': 4.0}\",\"('B', 'Fe')\",OTHERS,False\nmp-1216180,\"{'Yb': 29.0, 'Se': 32.0}\",\"('Se', 'Yb')\",OTHERS,False\nmp-1183876,\"{'Cd': 2.0, 'Hg': 4.0, 'Se': 2.0, 'O': 12.0}\",\"('Cd', 'Hg', 'O', 'Se')\",OTHERS,False\nmp-1186897,\"{'Rb': 1.0, 'Rh': 1.0, 'O': 3.0}\",\"('O', 'Rb', 'Rh')\",OTHERS,False\nmp-1189166,\"{'Tm': 4.0, 'Ge': 4.0, 'Pd': 8.0}\",\"('Ge', 'Pd', 'Tm')\",OTHERS,False\nmp-1211495,\"{'La': 12.0, 'Pt': 4.0, 'I': 12.0}\",\"('I', 'La', 'Pt')\",OTHERS,False\nmp-866282,\"{'Ca': 1.0, 'Th': 1.0, 'Rh': 2.0}\",\"('Ca', 'Rh', 'Th')\",OTHERS,False\nmp-1105483,\"{'Ce': 6.0, 'Sn': 12.0, 'Ru': 2.0}\",\"('Ce', 'Ru', 'Sn')\",OTHERS,False\nmp-1210221,\"{'Na': 4.0, 'W': 4.0, 'O': 15.0}\",\"('Na', 'O', 'W')\",OTHERS,False\nmp-1095484,\"{'Pr': 2.0, 'Al': 8.0, 'Ni': 2.0}\",\"('Al', 'Ni', 'Pr')\",OTHERS,False\nmp-1215302,\"{'Zr': 4.0, 'Al': 4.0, 'Pd': 4.0}\",\"('Al', 'Pd', 'Zr')\",OTHERS,False\nmp-8620,\"{'Si': 10.0, 'Rh': 6.0, 'La': 4.0}\",\"('La', 'Rh', 'Si')\",OTHERS,False\nmp-13494,\"{'Fe': 29.0, 'Nd': 3.0}\",\"('Fe', 'Nd')\",OTHERS,False\nmp-647075,\"{'Zn': 64.0, 'S': 64.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-1112784,\"{'Cs': 2.0, 'K': 1.0, 'Ce': 1.0, 'I': 6.0}\",\"('Ce', 'Cs', 'I', 'K')\",OTHERS,False\nmp-1219622,\"{'Rb': 2.0, 'Li': 2.0, 'Mg': 2.0, 'B': 8.0, 'H': 32.0}\",\"('B', 'H', 'Li', 'Mg', 'Rb')\",OTHERS,False\nmp-1095573,\"{'Nb': 4.0, 'Co': 4.0, 'Si': 4.0}\",\"('Co', 'Nb', 'Si')\",OTHERS,False\nmp-763324,\"{'Li': 2.0, 'Mn': 2.0, 'P': 4.0, 'H': 3.0, 'O': 16.0}\",\"('H', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-697408,\"{'H': 20.0, 'C': 4.0, 'N': 4.0, 'O': 10.0}\",\"('C', 'H', 'N', 'O')\",OTHERS,False\nmp-1222651,\"{'Li': 2.0, 'Mg': 1.0, 'Ge': 1.0}\",\"('Ge', 'Li', 'Mg')\",OTHERS,False\nmp-11713,\"{'C': 5.0, 'Si': 5.0}\",\"('C', 'Si')\",OTHERS,False\nmp-1184847,\"{'Ho': 1.0, 'Lu': 1.0, 'Ir': 2.0}\",\"('Ho', 'Ir', 'Lu')\",OTHERS,False\nmp-1020627,\"{'Sr': 4.0, 'Li': 4.0, 'Al': 12.0, 'N': 16.0}\",\"('Al', 'Li', 'N', 'Sr')\",OTHERS,False\nmp-1210310,\"{'Rb': 4.0, 'Pr': 4.0, 'S': 8.0, 'O': 48.0}\",\"('O', 'Pr', 'Rb', 'S')\",OTHERS,False\nmp-1220011,\"{'P': 6.0, 'N': 6.0, 'O': 6.0}\",\"('N', 'O', 'P')\",OTHERS,False\nmp-755266,\"{'Li': 4.0, 'Ti': 3.0, 'O': 8.0}\",\"('Li', 'O', 'Ti')\",OTHERS,False\nmp-1247036,\"{'Mg': 2.0, 'Ti': 3.0, 'Cr': 1.0, 'S': 8.0}\",\"('Cr', 'Mg', 'S', 'Ti')\",OTHERS,False\nmp-1246298,\"{'Sr': 8.0, 'Ru': 2.0, 'N': 8.0}\",\"('N', 'Ru', 'Sr')\",OTHERS,False\nmp-7007,\"{'Se': 2.0, 'Nb': 1.0}\",\"('Nb', 'Se')\",OTHERS,False\nmp-1215917,\"{'Zr': 16.0, 'Ni': 4.0, 'Mo': 4.0}\",\"('Mo', 'Ni', 'Zr')\",OTHERS,False\nmp-1175812,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-30971,\"{'Cl': 4.0, 'Cu': 4.0, 'Te': 8.0}\",\"('Cl', 'Cu', 'Te')\",OTHERS,False\nmp-1221774,\"{'Mn': 2.0, 'Cr': 2.0, 'Te': 4.0}\",\"('Cr', 'Mn', 'Te')\",OTHERS,False\nmp-1204384,\"{'Ag': 4.0, 'H': 40.0, 'S': 32.0, 'N': 32.0, 'Cl': 4.0, 'O': 24.0}\",\"('Ag', 'Cl', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-866141,\"{'Ti': 1.0, 'Fe': 2.0, 'Si': 1.0}\",\"('Fe', 'Si', 'Ti')\",OTHERS,False\nmp-1238823,\"{'Cs': 4.0, 'Cr': 8.0, 'S': 16.0}\",\"('Cr', 'Cs', 'S')\",OTHERS,False\nmp-1096050,\"{'Mg': 1.0, 'Al': 1.0, 'Pt': 2.0}\",\"('Al', 'Mg', 'Pt')\",OTHERS,False\nmp-27211,\"{'F': 13.0, 'K': 1.0, 'Sb': 4.0}\",\"('F', 'K', 'Sb')\",OTHERS,False\nmp-30542,\"{'P': 32.0, 'Ni': 8.0, 'W': 2.0}\",\"('Ni', 'P', 'W')\",OTHERS,False\nmp-27734,\"{'Cr': 6.0, 'Br': 18.0}\",\"('Br', 'Cr')\",OTHERS,False\nmp-1196152,\"{'Y': 4.0, 'B': 12.0, 'H': 96.0, 'N': 16.0}\",\"('B', 'H', 'N', 'Y')\",OTHERS,False\nmp-768492,\"{'Li': 8.0, 'Ti': 1.0, 'Mn': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'Mn', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1214538,\"{'Ba': 8.0, 'Na': 8.0, 'Ga': 8.0, 'F': 48.0}\",\"('Ba', 'F', 'Ga', 'Na')\",OTHERS,False\nmvc-932,\"{'Ba': 1.0, 'Zn': 1.0, 'Cr': 4.0, 'O': 8.0}\",\"('Ba', 'Cr', 'O', 'Zn')\",OTHERS,False\nmp-1013713,\"{'Ba': 3.0, 'Bi': 1.0, 'P': 1.0}\",\"('Ba', 'Bi', 'P')\",OTHERS,False\nmp-1211986,\"{'K': 8.0, 'Hg': 12.0, 'S': 16.0}\",\"('Hg', 'K', 'S')\",OTHERS,False\nmp-1270,\"{'S': 12.0, 'Dy': 8.0}\",\"('Dy', 'S')\",OTHERS,False\nmp-570598,\"{'Sr': 2.0, 'Si': 14.0, 'N': 20.0}\",\"('N', 'Si', 'Sr')\",OTHERS,False\nmp-8258,\"{'Al': 8.0, 'S': 14.0, 'Ba': 2.0}\",\"('Al', 'Ba', 'S')\",OTHERS,False\nmp-1017631,\"{'Sc': 1.0, 'B': 1.0, 'Pd': 3.0}\",\"('B', 'Pd', 'Sc')\",OTHERS,False\nmp-1202872,\"{'K': 8.0, 'B': 8.0, 'C': 8.0, 'N': 8.0, 'F': 24.0}\",\"('B', 'C', 'F', 'K', 'N')\",OTHERS,False\nmp-1174179,\"{'Li': 8.0, 'Co': 6.0, 'O': 14.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-24473,\"{'H': 16.0, 'Be': 4.0, 'N': 4.0, 'O': 16.0, 'P': 4.0}\",\"('Be', 'H', 'N', 'O', 'P')\",OTHERS,False\nmvc-4358,\"{'Mg': 4.0, 'Ta': 2.0, 'Cr': 2.0, 'O': 12.0}\",\"('Cr', 'Mg', 'O', 'Ta')\",OTHERS,False\nmp-22916,\"{'Na': 1.0, 'Br': 1.0}\",\"('Br', 'Na')\",OTHERS,False\nmp-760269,\"{'Li': 10.0, 'Fe': 4.0, 'B': 4.0, 'O': 16.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-582819,{'Pu': 8.0},\"('Pu',)\",OTHERS,False\nmp-1193528,\"{'Ca': 2.0, 'I': 4.0, 'O': 24.0}\",\"('Ca', 'I', 'O')\",OTHERS,False\nmp-557821,\"{'Ca': 6.0, 'Cr': 6.0, 'P': 8.0, 'O': 32.0}\",\"('Ca', 'Cr', 'O', 'P')\",OTHERS,False\nmp-1188244,\"{'Lu': 8.0, 'Re': 4.0, 'C': 8.0}\",\"('C', 'Lu', 'Re')\",OTHERS,False\nmp-720765,\"{'H': 12.0, 'S': 4.0, 'N': 4.0, 'O': 16.0}\",\"('H', 'N', 'O', 'S')\",OTHERS,False\nmp-1211808,\"{'K': 6.0, 'Na': 14.0, 'Tl': 18.0, 'Hg': 1.0}\",\"('Hg', 'K', 'Na', 'Tl')\",OTHERS,False\nmp-1094575,\"{'Li': 6.0, 'Mg': 6.0}\",\"('Li', 'Mg')\",OTHERS,False\nmp-1238861,\"{'Ti': 2.0, 'Cr': 2.0, 'Cu': 2.0, 'S': 8.0}\",\"('Cr', 'Cu', 'S', 'Ti')\",OTHERS,False\nmp-1195212,\"{'Rb': 16.0, 'Si': 40.0, 'Ni': 8.0, 'O': 96.0}\",\"('Ni', 'O', 'Rb', 'Si')\",OTHERS,False\nmp-1211727,\"{'K': 2.0, 'Rb': 1.0, 'Yb': 1.0, 'V': 2.0, 'O': 8.0}\",\"('K', 'O', 'Rb', 'V', 'Yb')\",OTHERS,False\nmp-18150,\"{'O': 24.0, 'P': 6.0, 'K': 9.0, 'Lu': 3.0}\",\"('K', 'Lu', 'O', 'P')\",OTHERS,False\nmp-758196,\"{'Mg': 9.0, 'As': 6.0, 'O': 24.0}\",\"('As', 'Mg', 'O')\",OTHERS,False\nmp-1208360,\"{'Tb': 2.0, 'Tl': 2.0, 'W': 4.0, 'O': 16.0}\",\"('O', 'Tb', 'Tl', 'W')\",OTHERS,False\nmp-829,\"{'Al': 1.0, 'Pd': 1.0}\",\"('Al', 'Pd')\",OTHERS,False\nmp-1185776,\"{'Mg': 2.0, 'Ir': 2.0, 'O': 5.0}\",\"('Ir', 'Mg', 'O')\",OTHERS,False\nmp-1106254,\"{'La': 2.0, 'Lu': 6.0, 'S': 12.0}\",\"('La', 'Lu', 'S')\",OTHERS,False\nmp-510713,\"{'O': 16.0, 'K': 6.0, 'Mn': 4.0}\",\"('K', 'Mn', 'O')\",OTHERS,False\nmvc-3064,\"{'Ba': 2.0, 'Tl': 2.0, 'Zn': 2.0, 'Fe': 3.0, 'O': 10.0}\",\"('Ba', 'Fe', 'O', 'Tl', 'Zn')\",OTHERS,False\nmp-1208140,\"{'Tl': 6.0, 'Ge': 2.0, 'F': 14.0}\",\"('F', 'Ge', 'Tl')\",OTHERS,False\nmp-23149,\"{'K': 8.0, 'Al': 6.0, 'Si': 6.0, 'Cl': 2.0, 'O': 24.0}\",\"('Al', 'Cl', 'K', 'O', 'Si')\",OTHERS,False\nmp-1079801,\"{'Nb': 1.0, 'Ni': 3.0, 'H': 2.0, 'C': 2.0}\",\"('C', 'H', 'Nb', 'Ni')\",OTHERS,False\nmp-1210861,\"{'Na': 8.0, 'Si': 24.0, 'O': 48.0}\",\"('Na', 'O', 'Si')\",OTHERS,False\nmp-756093,\"{'Na': 12.0, 'Nb': 1.0, 'O': 7.0}\",\"('Na', 'Nb', 'O')\",OTHERS,False\nmp-1105556,\"{'La': 1.0, 'As': 12.0, 'Os': 4.0}\",\"('As', 'La', 'Os')\",OTHERS,False\nmp-9266,\"{'Na': 12.0, 'S': 8.0, 'Fe': 2.0}\",\"('Fe', 'Na', 'S')\",OTHERS,False\nmp-754157,\"{'Al': 2.0, 'In': 2.0, 'O': 6.0}\",\"('Al', 'In', 'O')\",OTHERS,False\nmp-1205879,\"{'Pr': 3.0, 'Cd': 3.0, 'Au': 3.0}\",\"('Au', 'Cd', 'Pr')\",OTHERS,False\nmp-1175375,\"{'Li': 7.0, 'Mn': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-769567,\"{'Li': 10.0, 'Ti': 11.0, 'Cr': 9.0, 'O': 40.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-3312,\"{'Se': 8.0, 'Sb': 4.0, 'Cs': 2.0}\",\"('Cs', 'Sb', 'Se')\",OTHERS,False\nmp-554736,\"{'Ca': 2.0, 'B': 4.0, 'H': 24.0, 'O': 20.0}\",\"('B', 'Ca', 'H', 'O')\",OTHERS,False\nmp-1099277,\"{'Li': 1.0, 'Mg': 6.0, 'Fe': 1.0}\",\"('Fe', 'Li', 'Mg')\",OTHERS,False\nmp-850900,\"{'Li': 6.0, 'V': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1796,\"{'Te': 6.0, 'Tl': 10.0}\",\"('Te', 'Tl')\",OTHERS,False\nmp-568709,\"{'Dy': 8.0, 'Ni': 28.0, 'Sn': 12.0}\",\"('Dy', 'Ni', 'Sn')\",OTHERS,False\nmp-1097565,\"{'Hf': 2.0, 'Re': 1.0, 'Ru': 1.0}\",\"('Hf', 'Re', 'Ru')\",OTHERS,False\nmp-1216037,\"{'Zn': 3.0, 'Rh': 2.0, 'C': 12.0, 'N': 12.0}\",\"('C', 'N', 'Rh', 'Zn')\",OTHERS,False\nmp-1182211,\"{'Ba': 2.0, 'Yb': 2.0, 'Co': 8.0, 'O': 14.0}\",\"('Ba', 'Co', 'O', 'Yb')\",OTHERS,False\nmp-10992,\"{'Cu': 2.0, 'As': 4.0, 'Dy': 2.0}\",\"('As', 'Cu', 'Dy')\",OTHERS,False\nmp-532650,\"{'Ca': 8.0, 'Mn': 6.0, 'B': 6.0, 'C': 2.0, 'O': 30.0}\",\"('B', 'C', 'Ca', 'Mn', 'O')\",OTHERS,False\nmp-31508,\"{'K': 4.0, 'Br': 20.0, 'Pb': 8.0}\",\"('Br', 'K', 'Pb')\",OTHERS,False\nmp-554370,\"{'Ti': 2.0, 'S': 2.0, 'Cl': 12.0, 'O': 2.0}\",\"('Cl', 'O', 'S', 'Ti')\",OTHERS,False\nmp-1228875,\"{'Cs': 2.0, 'Ni': 2.0, 'P': 2.0}\",\"('Cs', 'Ni', 'P')\",OTHERS,False\nmp-1147714,\"{'P': 8.0, 'S': 12.0}\",\"('P', 'S')\",OTHERS,False\nmp-568135,\"{'Cs': 8.0, 'Sc': 12.0, 'C': 2.0, 'Cl': 26.0}\",\"('C', 'Cl', 'Cs', 'Sc')\",OTHERS,False\nmp-762236,\"{'Al': 6.0, 'Cr': 2.0, 'O': 12.0}\",\"('Al', 'Cr', 'O')\",OTHERS,False\nmp-1078913,\"{'Rb': 3.0, 'Ce': 1.0, 'F': 6.0}\",\"('Ce', 'F', 'Rb')\",OTHERS,False\nmp-558346,\"{'Nd': 4.0, 'I': 12.0, 'O': 36.0}\",\"('I', 'Nd', 'O')\",OTHERS,False\nmp-761234,\"{'Li': 3.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1226091,\"{'Cr': 8.0, 'Cu': 3.0, 'Ni': 1.0, 'S': 16.0}\",\"('Cr', 'Cu', 'Ni', 'S')\",OTHERS,False\nmp-976818,\"{'Ni': 3.0, 'Au': 1.0}\",\"('Au', 'Ni')\",OTHERS,False\nmvc-3244,\"{'Mg': 2.0, 'Cr': 2.0, 'P': 2.0, 'O': 10.0}\",\"('Cr', 'Mg', 'O', 'P')\",OTHERS,False\nmp-1213043,\"{'Cs': 1.0, 'Mg': 1.0, 'As': 1.0, 'H': 6.0, 'O': 4.0}\",\"('As', 'Cs', 'H', 'Mg', 'O')\",OTHERS,False\nmp-1076751,\"{'K': 4.0, 'Na': 4.0, 'Nb': 1.0, 'W': 7.0, 'O': 24.0}\",\"('K', 'Na', 'Nb', 'O', 'W')\",OTHERS,False\nmp-571225,\"{'Cd': 7.0, 'I': 14.0}\",\"('Cd', 'I')\",OTHERS,False\nmp-707816,\"{'H': 10.0, 'C': 2.0, 'S': 2.0, 'N': 4.0, 'Cl': 2.0, 'O': 8.0}\",\"('C', 'Cl', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-768682,\"{'Rb': 10.0, 'Fe': 2.0, 'O': 8.0}\",\"('Fe', 'O', 'Rb')\",OTHERS,False\nmp-1205657,\"{'Gd': 4.0, 'Mg': 2.0, 'Ni': 4.0}\",\"('Gd', 'Mg', 'Ni')\",OTHERS,False\nmp-570037,\"{'Co': 6.0, 'Au': 12.0, 'C': 24.0, 'N': 24.0}\",\"('Au', 'C', 'Co', 'N')\",OTHERS,False\nmp-1178244,\"{'Fe': 18.0, 'O': 18.0, 'F': 18.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-776035,\"{'Li': 18.0, 'Cu': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-973921,\"{'Lu': 2.0, 'Ni': 12.0, 'As': 7.0}\",\"('As', 'Lu', 'Ni')\",OTHERS,False\nmp-866121,\"{'V': 3.0, 'Os': 1.0}\",\"('Os', 'V')\",OTHERS,False\nmp-1213994,\"{'Ca': 2.0, 'H': 12.0, 'Pt': 2.0, 'O': 12.0}\",\"('Ca', 'H', 'O', 'Pt')\",OTHERS,False\nmp-611378,\"{'Ba': 1.0, 'Lu': 1.0, 'Fe': 1.0, 'Cu': 1.0, 'O': 5.0}\",\"('Ba', 'Cu', 'Fe', 'Lu', 'O')\",OTHERS,False\nmp-709921,\"{'Cs': 4.0, 'Na': 8.0, 'Cu': 4.0, 'Si': 24.0, 'H': 8.0, 'O': 62.0}\",\"('Cs', 'Cu', 'H', 'Na', 'O', 'Si')\",OTHERS,False\nmp-561257,\"{'Li': 2.0, 'Pr': 4.0, 'C': 4.0, 'N': 8.0, 'F': 6.0}\",\"('C', 'F', 'Li', 'N', 'Pr')\",OTHERS,False\nmp-1186256,\"{'Nd': 2.0, 'Tl': 1.0, 'Ag': 1.0}\",\"('Ag', 'Nd', 'Tl')\",OTHERS,False\nmp-1199071,\"{'Pr': 2.0, 'Cd': 40.0, 'Pd': 4.0}\",\"('Cd', 'Pd', 'Pr')\",OTHERS,False\nmp-1209430,\"{'Pr': 3.0, 'P': 6.0, 'Pd': 20.0}\",\"('P', 'Pd', 'Pr')\",OTHERS,False\nmp-1219697,\"{'Rb': 3.0, 'Ag': 9.0, 'Sb': 4.0, 'S': 12.0}\",\"('Ag', 'Rb', 'S', 'Sb')\",OTHERS,False\nmp-755205,\"{'Zr': 8.0, 'N': 8.0, 'O': 4.0}\",\"('N', 'O', 'Zr')\",OTHERS,False\nmp-1228011,\"{'Ba': 1.0, 'La': 2.0, 'Fe': 2.0, 'O': 5.0, 'F': 4.0}\",\"('Ba', 'F', 'Fe', 'La', 'O')\",OTHERS,False\nmp-1703,\"{'Zn': 1.0, 'Yb': 1.0}\",\"('Yb', 'Zn')\",OTHERS,False\nmp-754903,\"{'Y': 2.0, 'B': 6.0, 'O': 12.0}\",\"('B', 'O', 'Y')\",OTHERS,False\nmp-761223,\"{'Mn': 6.0, 'O': 2.0, 'F': 16.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-698125,\"{'Np': 2.0, 'H': 32.0, 'C': 8.0, 'N': 16.0, 'Cl': 2.0, 'O': 12.0}\",\"('C', 'Cl', 'H', 'N', 'Np', 'O')\",OTHERS,False\nmp-1213423,\"{'Eu': 16.0, 'As': 24.0}\",\"('As', 'Eu')\",OTHERS,False\nmp-776063,\"{'Li': 16.0, 'Mn': 8.0, 'P': 8.0, 'O': 32.0, 'F': 8.0}\",\"('F', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1182253,\"{'Ca': 2.0, 'N': 4.0, 'O': 16.0}\",\"('Ca', 'N', 'O')\",OTHERS,False\nmp-1225717,\"{'Cu': 3.0, 'N': 1.0}\",\"('Cu', 'N')\",OTHERS,False\nmp-1186395,\"{'Pa': 1.0, 'Hg': 1.0, 'O': 3.0}\",\"('Hg', 'O', 'Pa')\",OTHERS,False\nmp-1095090,\"{'Ba': 1.0, 'Mn': 2.0, 'O': 5.0}\",\"('Ba', 'Mn', 'O')\",OTHERS,False\nmp-1207267,\"{'Pr': 4.0, 'Co': 1.0, 'I': 5.0}\",\"('Co', 'I', 'Pr')\",OTHERS,False\nmp-1225403,\"{'Dy': 2.0, 'Cu': 6.0, 'Se': 6.0}\",\"('Cu', 'Dy', 'Se')\",OTHERS,False\nmp-555983,\"{'Er': 8.0, 'Si': 4.0, 'O': 20.0}\",\"('Er', 'O', 'Si')\",OTHERS,False\nmp-1215741,\"{'Zn': 2.0, 'Cr': 3.0, 'Fe': 1.0, 'O': 8.0}\",\"('Cr', 'Fe', 'O', 'Zn')\",OTHERS,False\nmvc-9983,\"{'Mg': 2.0, 'Mo': 4.0, 'O': 8.0}\",\"('Mg', 'Mo', 'O')\",OTHERS,False\nmp-21625,\"{'Co': 6.0, 'Ga': 18.0, 'Y': 4.0}\",\"('Co', 'Ga', 'Y')\",OTHERS,False\nmp-759513,\"{'Li': 14.0, 'Ni': 2.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-1211804,\"{'K': 6.0, 'Na': 14.0, 'Tl': 18.0, 'Cd': 1.0}\",\"('Cd', 'K', 'Na', 'Tl')\",OTHERS,False\nmp-27684,\"{'O': 6.0, 'Tl': 8.0}\",\"('O', 'Tl')\",OTHERS,False\nmp-1226714,\"{'Ce': 1.0, 'Er': 4.0, 'S': 7.0}\",\"('Ce', 'Er', 'S')\",OTHERS,False\nmp-21011,\"{'As': 6.0, 'Ce': 8.0}\",\"('As', 'Ce')\",OTHERS,False\nmp-680415,\"{'Os': 6.0, 'C': 20.0, 'Br': 4.0, 'O': 20.0}\",\"('Br', 'C', 'O', 'Os')\",OTHERS,False\nmp-759653,\"{'Li': 4.0, 'Bi': 8.0, 'P': 4.0, 'O': 24.0}\",\"('Bi', 'Li', 'O', 'P')\",OTHERS,False\nmp-768795,\"{'Li': 8.0, 'Bi': 8.0, 'B': 16.0, 'O': 40.0}\",\"('B', 'Bi', 'Li', 'O')\",OTHERS,False\nmp-780308,\"{'Li': 5.0, 'Mn': 6.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-12557,\"{'Sr': 2.0, 'Cu': 2.0, 'As': 2.0}\",\"('As', 'Cu', 'Sr')\",OTHERS,False\nmp-707519,\"{'Mg': 16.0, 'Si': 8.0, 'H': 1.0, 'O': 32.0}\",\"('H', 'Mg', 'O', 'Si')\",OTHERS,False\nmvc-11654,\"{'Mn': 4.0, 'Zn': 1.0, 'O': 8.0}\",\"('Mn', 'O', 'Zn')\",OTHERS,False\nmp-1096340,\"{'Na': 1.0, 'Hg': 2.0, 'Bi': 1.0}\",\"('Bi', 'Hg', 'Na')\",OTHERS,False\nmp-1207971,\"{'Tm': 2.0, 'Co': 8.0, 'Ge': 4.0}\",\"('Co', 'Ge', 'Tm')\",OTHERS,False\nmp-1179218,\"{'Sr': 2.0, 'Br': 2.0, 'O': 10.0}\",\"('Br', 'O', 'Sr')\",OTHERS,False\nmp-1212562,\"{'Na': 4.0, 'Cr': 4.0, 'H': 48.0, 'S': 8.0, 'O': 32.0}\",\"('Cr', 'H', 'Na', 'O', 'S')\",OTHERS,False\nmp-1229210,\"{'Ba': 10.0, 'Er': 5.0, 'Cu': 15.0, 'O': 34.0}\",\"('Ba', 'Cu', 'Er', 'O')\",OTHERS,False\nmp-1246127,\"{'Ca': 6.0, 'Ir': 4.0, 'N': 8.0}\",\"('Ca', 'Ir', 'N')\",OTHERS,False\nmp-850215,\"{'Li': 2.0, 'Ti': 2.0, 'Mn': 2.0, 'O': 8.0}\",\"('Li', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-1245746,\"{'Na': 1.0, 'Sb': 1.0, 'N': 2.0}\",\"('N', 'Na', 'Sb')\",OTHERS,False\nmp-20138,\"{'Pd': 3.0, 'In': 3.0, 'La': 3.0}\",\"('In', 'La', 'Pd')\",OTHERS,False\nmp-1176673,\"{'Na': 10.0, 'Ni': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Na', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1201474,\"{'K': 16.0, 'S': 16.0, 'O': 64.0}\",\"('K', 'O', 'S')\",OTHERS,False\nmp-19917,\"{'Si': 2.0, 'Zr': 2.0, 'Te': 2.0}\",\"('Si', 'Te', 'Zr')\",OTHERS,False\nmp-1180621,\"{'K': 1.0, 'S': 1.0}\",\"('K', 'S')\",OTHERS,False\nmp-607371,\"{'Ru': 2.0, 'N': 4.0}\",\"('N', 'Ru')\",OTHERS,False\nmp-662599,\"{'Ag': 36.0, 'As': 12.0, 'Se': 36.0}\",\"('Ag', 'As', 'Se')\",OTHERS,False\nmp-1097065,\"{'Li': 2.0, 'Hf': 1.0, 'N': 2.0}\",\"('Hf', 'Li', 'N')\",OTHERS,False\nmp-685374,\"{'Ti': 6.0, 'Fe': 10.0, 'O': 24.0}\",\"('Fe', 'O', 'Ti')\",OTHERS,False\nmp-33255,\"{'Ni': 15.0, 'O': 16.0}\",\"('Ni', 'O')\",OTHERS,False\nmp-753451,\"{'Li': 2.0, 'Fe': 4.0, 'P': 4.0, 'H': 2.0, 'O': 16.0}\",\"('Fe', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-974843,\"{'Rb': 3.0, 'Os': 1.0}\",\"('Os', 'Rb')\",OTHERS,False\nmp-998536,\"{'Rb': 4.0, 'Ca': 4.0, 'Br': 12.0}\",\"('Br', 'Ca', 'Rb')\",OTHERS,False\nmp-1211668,\"{'La': 2.0, 'Nb': 16.0, 'O': 28.0}\",\"('La', 'Nb', 'O')\",OTHERS,False\nmp-6239,\"{'O': 48.0, 'Si': 12.0, 'Mn': 12.0, 'Fe': 8.0}\",\"('Fe', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1207622,\"{'Yb': 10.0, 'Pt': 18.0}\",\"('Pt', 'Yb')\",OTHERS,False\nmp-705468,\"{'Li': 6.0, 'Mn': 6.0, 'P': 8.0, 'O': 32.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1186813,\"{'Pu': 3.0, 'Br': 1.0}\",\"('Br', 'Pu')\",OTHERS,False\nmp-1096395,\"{'Li': 1.0, 'Mg': 1.0, 'Pb': 2.0}\",\"('Li', 'Mg', 'Pb')\",OTHERS,False\nmp-1199323,\"{'Th': 4.0, 'P': 8.0, 'H': 8.0, 'C': 4.0, 'O': 32.0}\",\"('C', 'H', 'O', 'P', 'Th')\",OTHERS,False\nmp-28444,\"{'O': 16.0, 'Si': 4.0, 'Fe': 6.0}\",\"('Fe', 'O', 'Si')\",OTHERS,False\nmvc-6475,\"{'Mg': 2.0, 'Ti': 4.0, 'O': 8.0}\",\"('Mg', 'O', 'Ti')\",OTHERS,False\nmp-780146,\"{'Fe': 6.0, 'O': 4.0, 'F': 8.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1219095,\"{'Sm': 2.0, 'Bi': 2.0, 'Ru': 4.0, 'O': 14.0}\",\"('Bi', 'O', 'Ru', 'Sm')\",OTHERS,False\nmp-1175110,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-3569,\"{'Sb': 12.0, 'Nd': 1.0, 'Os': 4.0}\",\"('Nd', 'Os', 'Sb')\",OTHERS,False\nmp-755642,\"{'Li': 6.0, 'V': 2.0, 'S': 8.0}\",\"('Li', 'S', 'V')\",OTHERS,False\nmp-1209956,\"{'Na': 1.0, 'Tb': 1.0, 'Pd': 6.0, 'O': 8.0}\",\"('Na', 'O', 'Pd', 'Tb')\",OTHERS,False\nmp-1220313,\"{'Nd': 2.0, 'Sb': 1.0, 'O': 2.0}\",\"('Nd', 'O', 'Sb')\",OTHERS,False\nmp-2501,\"{'B': 2.0, 'Mo': 4.0}\",\"('B', 'Mo')\",OTHERS,False\nmp-771834,\"{'Tb': 12.0, 'Nb': 4.0, 'O': 28.0}\",\"('Nb', 'O', 'Tb')\",OTHERS,False\nmp-669325,\"{'Te': 2.0, 'W': 2.0, 'Cl': 18.0}\",\"('Cl', 'Te', 'W')\",OTHERS,False\nmp-1079552,\"{'Tb': 2.0, 'Ga': 4.0, 'Ni': 2.0}\",\"('Ga', 'Ni', 'Tb')\",OTHERS,False\nmp-7022,\"{'V': 10.0, 'As': 6.0}\",\"('As', 'V')\",OTHERS,False\nmp-9930,\"{'P': 2.0, 'Se': 2.0, 'U': 2.0}\",\"('P', 'Se', 'U')\",OTHERS,False\nmp-12540,\"{'O': 48.0, 'P': 8.0, 'Zr': 8.0, 'Mo': 4.0}\",\"('Mo', 'O', 'P', 'Zr')\",OTHERS,False\nmp-558786,\"{'Ag': 12.0, 'Ge': 2.0, 'S': 2.0, 'O': 16.0}\",\"('Ag', 'Ge', 'O', 'S')\",OTHERS,False\nmp-25923,\"{'Li': 6.0, 'O': 32.0, 'P': 8.0, 'Mn': 9.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1074028,\"{'Mg': 18.0, 'Si': 10.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1196619,\"{'Ir': 8.0, 'Se': 36.0, 'Cl': 24.0}\",\"('Cl', 'Ir', 'Se')\",OTHERS,False\nmp-1113353,\"{'Cs': 2.0, 'Cu': 1.0, 'Sb': 1.0, 'I': 6.0}\",\"('Cs', 'Cu', 'I', 'Sb')\",OTHERS,False\nmp-8111,\"{'La': 2.0, 'O': 2.0, 'F': 2.0}\",\"('F', 'La', 'O')\",OTHERS,False\nmp-998435,\"{'Cs': 4.0, 'Sc': 4.0, 'Br': 12.0}\",\"('Br', 'Cs', 'Sc')\",OTHERS,False\nmp-504962,\"{'In': 4.0, 'Na': 12.0, 'K': 8.0, 'O': 16.0}\",\"('In', 'K', 'Na', 'O')\",OTHERS,False\nmp-769138,\"{'Dy': 12.0, 'Sb': 12.0, 'O': 42.0}\",\"('Dy', 'O', 'Sb')\",OTHERS,False\nmp-1245714,\"{'Sr': 16.0, 'C': 8.0, 'N': 20.0}\",\"('C', 'N', 'Sr')\",OTHERS,False\nmp-1019796,\"{'K': 8.0, 'P': 4.0, 'O': 14.0}\",\"('K', 'O', 'P')\",OTHERS,False\nmp-1069771,\"{'Rb': 2.0, 'Pd': 1.0, 'Se': 2.0}\",\"('Pd', 'Rb', 'Se')\",OTHERS,False\nmp-2568,\"{'Si': 2.0, 'Y': 1.0}\",\"('Si', 'Y')\",OTHERS,False\nmp-568801,\"{'Pr': 6.0, 'Cu': 2.0, 'Si': 2.0, 'Se': 14.0}\",\"('Cu', 'Pr', 'Se', 'Si')\",OTHERS,False\nmp-755361,\"{'Na': 6.0, 'V': 2.0, 'B': 2.0, 'As': 2.0, 'O': 14.0}\",\"('As', 'B', 'Na', 'O', 'V')\",OTHERS,False\nmp-36329,\"{'O': 4.0, 'U': 1.0, 'Sr': 1.0}\",\"('O', 'Sr', 'U')\",OTHERS,False\nmp-974358,\"{'Ir': 3.0, 'Ru': 1.0}\",\"('Ir', 'Ru')\",OTHERS,False\nmp-766544,\"{'Li': 4.0, 'Mn': 4.0, 'Si': 6.0, 'O': 20.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-26194,\"{'O': 52.0, 'P': 12.0, 'Mo': 8.0}\",\"('Mo', 'O', 'P')\",OTHERS,False\nmp-1030390,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1193254,\"{'Sr': 4.0, 'C': 8.0, 'O': 16.0}\",\"('C', 'O', 'Sr')\",OTHERS,False\nmp-556213,\"{'K': 16.0, 'Mn': 16.0, 'V': 16.0, 'O': 64.0}\",\"('K', 'Mn', 'O', 'V')\",OTHERS,False\nmp-559,\"{'Y': 1.0, 'Pd': 3.0}\",\"('Pd', 'Y')\",OTHERS,False\nmp-867195,\"{'Sr': 1.0, 'Os': 1.0, 'O': 3.0}\",\"('O', 'Os', 'Sr')\",OTHERS,False\nmp-780722,\"{'Y': 6.0, 'N': 2.0, 'O': 5.0}\",\"('N', 'O', 'Y')\",OTHERS,False\nmvc-1326,\"{'Ba': 2.0, 'Y': 2.0, 'W': 8.0, 'O': 14.0}\",\"('Ba', 'O', 'W', 'Y')\",OTHERS,False\nmp-1093905,\"{'Li': 1.0, 'La': 2.0, 'Tl': 1.0}\",\"('La', 'Li', 'Tl')\",OTHERS,False\nmp-1692,\"{'Cu': 2.0, 'O': 2.0}\",\"('Cu', 'O')\",OTHERS,False\nmp-1211502,\"{'La': 10.0, 'B': 6.0, 'O': 26.0}\",\"('B', 'La', 'O')\",OTHERS,False\nmp-1209181,\"{'Rb': 1.0, 'N': 1.0}\",\"('N', 'Rb')\",OTHERS,False\nmp-1223843,\"{'Ho': 1.0, 'Bi': 1.0, 'Te': 3.0}\",\"('Bi', 'Ho', 'Te')\",OTHERS,False\nmp-1204607,\"{'K': 8.0, 'I': 12.0, 'N': 4.0, 'O': 48.0}\",\"('I', 'K', 'N', 'O')\",OTHERS,False\nmp-1074288,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-9571,\"{'Ca': 1.0, 'Zn': 2.0, 'As': 2.0}\",\"('As', 'Ca', 'Zn')\",OTHERS,False\nmp-1112124,\"{'Cs': 2.0, 'Rb': 1.0, 'Pr': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Pr', 'Rb')\",OTHERS,False\nmp-1113404,\"{'Rb': 2.0, 'In': 1.0, 'Cu': 1.0, 'Br': 6.0}\",\"('Br', 'Cu', 'In', 'Rb')\",OTHERS,False\nmp-1217818,\"{'Ta': 1.0, 'V': 1.0, 'B': 4.0}\",\"('B', 'Ta', 'V')\",OTHERS,False\nmp-1209668,\"{'Sr': 6.0, 'H': 10.0, 'Os': 4.0, 'O': 16.0}\",\"('H', 'O', 'Os', 'Sr')\",OTHERS,False\nmp-849432,\"{'Ni': 1.0, 'H': 12.0, 'S': 2.0, 'N': 2.0, 'O': 10.0}\",\"('H', 'N', 'Ni', 'O', 'S')\",OTHERS,False\nmvc-14736,\"{'Y': 4.0, 'W': 4.0, 'O': 12.0}\",\"('O', 'W', 'Y')\",OTHERS,False\nmp-1187413,\"{'Th': 2.0, 'Ag': 6.0}\",\"('Ag', 'Th')\",OTHERS,False\nmp-764769,\"{'Li': 8.0, 'V': 2.0, 'F': 14.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-973498,\"{'In': 3.0, 'Au': 1.0}\",\"('Au', 'In')\",OTHERS,False\nmp-1219700,\"{'Sc': 2.0, 'Mn': 12.0, 'Ga': 1.0, 'Ge': 11.0}\",\"('Ga', 'Ge', 'Mn', 'Sc')\",OTHERS,False\nmp-1183082,\"{'Ac': 3.0, 'Zr': 1.0}\",\"('Ac', 'Zr')\",OTHERS,False\nmp-1193798,\"{'La': 6.0, 'Fe': 2.0, 'W': 2.0, 'S': 6.0, 'O': 12.0}\",\"('Fe', 'La', 'O', 'S', 'W')\",OTHERS,False\nmp-557531,\"{'Pb': 4.0, 'S': 2.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'O', 'Pb', 'S')\",OTHERS,False\nmp-1209816,\"{'Np': 4.0, 'F': 24.0}\",\"('F', 'Np')\",OTHERS,False\nmp-7400,\"{'Na': 2.0, 'Al': 2.0, 'Ge': 2.0}\",\"('Al', 'Ge', 'Na')\",OTHERS,False\nmp-1220782,\"{'Nb': 12.0, 'Ga': 3.0, 'Ge': 1.0}\",\"('Ga', 'Ge', 'Nb')\",OTHERS,False\nmp-1021328,\"{'H': 4.0, 'C': 1.0}\",\"('C', 'H')\",OTHERS,False\nmp-20103,\"{'Tm': 3.0, 'In': 3.0, 'Pt': 3.0}\",\"('In', 'Pt', 'Tm')\",OTHERS,False\nmp-23623,\"{'B': 20.0, 'O': 36.0, 'Br': 4.0, 'Pb': 8.0}\",\"('B', 'Br', 'O', 'Pb')\",OTHERS,False\nmp-1226559,\"{'Co': 3.0, 'Ni': 1.0}\",\"('Co', 'Ni')\",OTHERS,False\nmp-1196645,\"{'Cd': 8.0, 'S': 4.0, 'O': 24.0}\",\"('Cd', 'O', 'S')\",OTHERS,False\nmp-1211992,\"{'K': 18.0, 'Nd': 2.0, 'P': 8.0, 'S': 32.0}\",\"('K', 'Nd', 'P', 'S')\",OTHERS,False\nmp-626112,\"{'H': 28.0, 'N': 4.0, 'O': 24.0}\",\"('H', 'N', 'O')\",OTHERS,False\nmp-1213882,\"{'Ce': 4.0, 'Ta': 4.0, 'O': 18.0}\",\"('Ce', 'O', 'Ta')\",OTHERS,False\nmp-1096146,\"{'Y': 2.0, 'Rh': 1.0, 'Pb': 1.0}\",\"('Pb', 'Rh', 'Y')\",OTHERS,False\nmp-1222785,\"{'La': 1.0, 'Nd': 1.0, 'Al': 4.0}\",\"('Al', 'La', 'Nd')\",OTHERS,False\nmp-557769,\"{'Ca': 8.0, 'H': 16.0, 'C': 16.0, 'O': 40.0}\",\"('C', 'Ca', 'H', 'O')\",OTHERS,False\nmp-1080594,\"{'Dy': 3.0, 'In': 3.0, 'Cu': 3.0}\",\"('Cu', 'Dy', 'In')\",OTHERS,False\nmp-567471,\"{'Hg': 8.0, 'I': 16.0}\",\"('Hg', 'I')\",OTHERS,False\nmp-716814,\"{'Fe': 12.0, 'O': 18.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-759251,\"{'Li': 4.0, 'Sb': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-561315,\"{'Cs': 6.0, 'Al': 2.0, 'Ge': 4.0, 'O': 14.0}\",\"('Al', 'Cs', 'Ge', 'O')\",OTHERS,False\nmp-865928,\"{'Ti': 2.0, 'Tc': 1.0, 'Pt': 1.0}\",\"('Pt', 'Tc', 'Ti')\",OTHERS,False\nmp-35589,\"{'F': 7.0, 'Na': 3.0, 'U': 1.0}\",\"('F', 'Na', 'U')\",OTHERS,False\nmp-1225373,\"{'Dy': 2.0, 'P': 7.0, 'Rh': 12.0}\",\"('Dy', 'P', 'Rh')\",OTHERS,False\nmp-12022,\"{'B': 8.0, 'O': 14.0, 'Hg': 2.0}\",\"('B', 'Hg', 'O')\",OTHERS,False\nmp-27658,\"{'Li': 5.0, 'B': 4.0}\",\"('B', 'Li')\",OTHERS,False\nmp-752549,\"{'Li': 1.0, 'Ag': 1.0, 'F': 2.0}\",\"('Ag', 'F', 'Li')\",OTHERS,False\nmp-9665,\"{'B': 2.0, 'K': 6.0, 'As': 4.0}\",\"('As', 'B', 'K')\",OTHERS,False\nmp-505396,\"{'Pb': 4.0, 'Cs': 4.0, 'Na': 12.0, 'O': 16.0}\",\"('Cs', 'Na', 'O', 'Pb')\",OTHERS,False\nmp-1217591,\"{'Yb': 12.0, 'Cd': 72.0}\",\"('Cd', 'Yb')\",OTHERS,False\nmp-742801,\"{'V': 4.0, 'Cu': 2.0, 'H': 12.0, 'N': 4.0, 'O': 12.0}\",\"('Cu', 'H', 'N', 'O', 'V')\",OTHERS,False\nmp-1185360,\"{'Li': 1.0, 'Mn': 1.0, 'Ir': 2.0}\",\"('Ir', 'Li', 'Mn')\",OTHERS,False\nmp-863436,\"{'Co': 8.0, 'Te': 16.0, 'O': 40.0}\",\"('Co', 'O', 'Te')\",OTHERS,False\nmp-1094352,\"{'Sr': 8.0, 'Mg': 4.0}\",\"('Mg', 'Sr')\",OTHERS,False\nmp-757997,\"{'Li': 4.0, 'Sn': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1224936,\"{'Fe': 15.0, 'O': 16.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-7591,\"{'Ge': 1.0, 'As': 1.0}\",\"('As', 'Ge')\",OTHERS,False\nmp-557865,\"{'N': 6.0, 'O': 12.0}\",\"('N', 'O')\",OTHERS,False\nmp-651122,\"{'Mn': 12.0, 'Bi': 4.0, 'C': 60.0, 'O': 60.0}\",\"('Bi', 'C', 'Mn', 'O')\",OTHERS,False\nmp-1095889,\"{'Ta': 1.0, 'Nb': 1.0, 'Os': 2.0}\",\"('Nb', 'Os', 'Ta')\",OTHERS,False\nmp-1184534,\"{'Gd': 1.0, 'Lu': 1.0, 'Cd': 2.0}\",\"('Cd', 'Gd', 'Lu')\",OTHERS,False\nmp-1172894,\"{'Ca': 2.0, 'Ga': 4.0}\",\"('Ca', 'Ga')\",OTHERS,False\nmp-1183430,\"{'Ca': 2.0, 'Mg': 4.0}\",\"('Ca', 'Mg')\",OTHERS,False\nmp-1217436,\"{'Th': 4.0, 'U': 8.0, 'S': 20.0}\",\"('S', 'Th', 'U')\",OTHERS,False\nmp-7851,\"{'Co': 9.0, 'Ta': 3.0}\",\"('Co', 'Ta')\",OTHERS,False\nmp-768986,\"{'Li': 40.0, 'Bi': 8.0, 'O': 32.0}\",\"('Bi', 'Li', 'O')\",OTHERS,False\nmp-867551,\"{'Li': 12.0, 'Ni': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1214566,\"{'Ba': 6.0, 'Co': 2.0, 'O': 10.0}\",\"('Ba', 'Co', 'O')\",OTHERS,False\nmp-770367,\"{'Li': 2.0, 'V': 4.0, 'S': 6.0, 'O': 24.0}\",\"('Li', 'O', 'S', 'V')\",OTHERS,False\nmp-768430,\"{'Li': 24.0, 'Ti': 7.0, 'Cr': 5.0, 'O': 36.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-976280,\"{'Li': 2.0, 'Br': 2.0}\",\"('Br', 'Li')\",OTHERS,False\nmp-13230,\"{'F': 12.0, 'K': 6.0, 'Y': 2.0}\",\"('F', 'K', 'Y')\",OTHERS,False\nmp-27539,\"{'O': 10.0, 'La': 4.0, 'Re': 2.0}\",\"('La', 'O', 'Re')\",OTHERS,False\nmp-30011,\"{'F': 28.0, 'Kr': 4.0, 'Sb': 4.0}\",\"('F', 'Kr', 'Sb')\",OTHERS,False\nmp-1100775,\"{'Sr': 1.0, 'Eu': 1.0, 'O': 3.0}\",\"('Eu', 'O', 'Sr')\",OTHERS,False\nmp-25420,\"{'Li': 2.0, 'Ti': 2.0, 'P': 2.0, 'O': 8.0, 'F': 2.0}\",\"('F', 'Li', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1095730,\"{'Tl': 2.0, 'Cd': 1.0, 'In': 1.0}\",\"('Cd', 'In', 'Tl')\",OTHERS,False\nmp-774912,\"{'Li': 4.0, 'Nb': 2.0, 'Co': 3.0, 'Sb': 3.0, 'O': 16.0}\",\"('Co', 'Li', 'Nb', 'O', 'Sb')\",OTHERS,False\nmp-1095377,\"{'Er': 4.0, 'Sn': 4.0, 'Pd': 4.0}\",\"('Er', 'Pd', 'Sn')\",OTHERS,False\nmp-510122,\"{'Ce': 2.0, 'Co': 6.0, 'Pu': 8.0}\",\"('Ce', 'Co', 'Pu')\",OTHERS,False\nmvc-4004,\"{'Al': 4.0, 'W': 4.0, 'O': 12.0}\",\"('Al', 'O', 'W')\",OTHERS,False\nmp-1218918,\"{'Sr': 10.0, 'P': 6.0, 'Br': 1.0, 'O': 24.0, 'F': 1.0}\",\"('Br', 'F', 'O', 'P', 'Sr')\",OTHERS,False\nmp-1181006,\"{'Li': 4.0, 'V': 4.0, 'Te': 4.0, 'O': 20.0}\",\"('Li', 'O', 'Te', 'V')\",OTHERS,False\nmp-28866,\"{'Cl': 12.0, 'Te': 2.0, 'Os': 1.0}\",\"('Cl', 'Os', 'Te')\",OTHERS,False\nmp-556235,\"{'Ca': 4.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Ca', 'O')\",OTHERS,False\nmp-1185435,\"{'Li': 1.0, 'Yb': 1.0, 'Au': 2.0}\",\"('Au', 'Li', 'Yb')\",OTHERS,False\nmp-1220063,\"{'Pr': 7.0, 'In': 6.0, 'Ni': 5.0, 'Ge': 3.0}\",\"('Ge', 'In', 'Ni', 'Pr')\",OTHERS,False\nmp-1228917,\"{'Al': 1.0, 'In': 1.0, 'Ga': 1.0, 'Sb': 3.0}\",\"('Al', 'Ga', 'In', 'Sb')\",OTHERS,False\nmp-1214309,\"{'C': 16.0, 'N': 16.0, 'O': 32.0}\",\"('C', 'N', 'O')\",OTHERS,False\nmp-1212306,\"{'Ho': 16.0, 'Cd': 4.0, 'Pt': 4.0}\",\"('Cd', 'Ho', 'Pt')\",OTHERS,False\nmp-1215589,\"{'Zr': 3.0, 'Al': 1.0, 'N': 4.0}\",\"('Al', 'N', 'Zr')\",OTHERS,False\nmp-30792,\"{'Na': 16.0, 'Pb': 16.0}\",\"('Na', 'Pb')\",OTHERS,False\nmp-743872,\"{'V': 4.0, 'P': 4.0, 'H': 20.0, 'N': 4.0, 'O': 24.0}\",\"('H', 'N', 'O', 'P', 'V')\",OTHERS,False\nmp-1221881,\"{'Mn': 2.0, 'Al': 1.0, 'Cu': 3.0}\",\"('Al', 'Cu', 'Mn')\",OTHERS,False\nmp-1218661,\"{'Sr': 6.0, 'Ti': 2.0, 'Nb': 8.0, 'O': 30.0}\",\"('Nb', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1246203,\"{'Ca': 6.0, 'Ni': 2.0, 'N': 6.0}\",\"('Ca', 'N', 'Ni')\",OTHERS,False\nmp-1209473,\"{'Rb': 2.0, 'Na': 6.0, 'Fe': 14.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'Na', 'O', 'P', 'Rb')\",OTHERS,False\nmp-777271,\"{'Li': 9.0, 'Mn': 12.0, 'B': 12.0, 'O': 36.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1035964,\"{'Cs': 1.0, 'K': 1.0, 'Mg': 14.0, 'O': 15.0}\",\"('Cs', 'K', 'Mg', 'O')\",OTHERS,False\nmp-1101681,\"{'Nd': 2.0, 'Bi': 7.0, 'O': 14.0}\",\"('Bi', 'Nd', 'O')\",OTHERS,False\nmp-1207153,\"{'Gd': 3.0, 'Ga': 1.0, 'C': 1.0}\",\"('C', 'Ga', 'Gd')\",OTHERS,False\nmp-1210743,\"{'Li': 2.0, 'C': 1.0}\",\"('C', 'Li')\",OTHERS,False\nmp-1079313,\"{'V': 6.0, 'Ge': 2.0, 'C': 2.0}\",\"('C', 'Ge', 'V')\",OTHERS,False\nmp-1198817,\"{'Gd': 8.0, 'Si': 6.0, 'S': 24.0}\",\"('Gd', 'S', 'Si')\",OTHERS,False\nmp-1189433,\"{'La': 10.0, 'Sn': 6.0, 'C': 2.0}\",\"('C', 'La', 'Sn')\",OTHERS,False\nmp-1223414,\"{'La': 4.0, 'Te': 12.0, 'W': 2.0, 'O': 36.0}\",\"('La', 'O', 'Te', 'W')\",OTHERS,False\nmp-1080709,\"{'Nd': 4.0, 'Au': 4.0}\",\"('Au', 'Nd')\",OTHERS,False\nmp-762322,\"{'Li': 2.0, 'Ti': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'Ti')\",OTHERS,False\nmp-775202,\"{'Cr': 1.0, 'Sb': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1038009,\"{'Sr': 1.0, 'Ca': 1.0, 'Mg': 30.0, 'O': 32.0}\",\"('Ca', 'Mg', 'O', 'Sr')\",OTHERS,False\nmp-13065,\"{'O': 3.0, 'Ho': 2.0}\",\"('Ho', 'O')\",OTHERS,False\nmp-541487,\"{'Tl': 2.0, 'Pt': 4.0, 'Se': 6.0}\",\"('Pt', 'Se', 'Tl')\",OTHERS,False\nmp-9517,\"{'N': 4.0, 'Ti': 2.0, 'Sr': 2.0}\",\"('N', 'Sr', 'Ti')\",OTHERS,False\nmp-1188299,\"{'Tm': 4.0, 'Si': 4.0, 'Pd': 8.0}\",\"('Pd', 'Si', 'Tm')\",OTHERS,False\nmp-721365,\"{'V': 4.0, 'H': 40.0, 'S': 4.0, 'O': 40.0}\",\"('H', 'O', 'S', 'V')\",OTHERS,False\nmp-17746,\"{'Hf': 6.0, 'Ge': 6.0, 'Pd': 6.0}\",\"('Ge', 'Hf', 'Pd')\",OTHERS,False\nmvc-12592,\"{'Mg': 2.0, 'Cr': 4.0, 'O': 8.0}\",\"('Cr', 'Mg', 'O')\",OTHERS,False\nmp-1187112,\"{'Sr': 6.0, 'Dy': 2.0}\",\"('Dy', 'Sr')\",OTHERS,False\nmp-1078810,\"{'Sc': 4.0, 'Sn': 2.0, 'Au': 4.0}\",\"('Au', 'Sc', 'Sn')\",OTHERS,False\nmp-1180312,\"{'Mg': 8.0, 'O': 8.0}\",\"('Mg', 'O')\",OTHERS,False\nmp-1225422,\"{'Fe': 20.0, 'Bi': 16.0, 'O': 52.0, 'F': 4.0}\",\"('Bi', 'F', 'Fe', 'O')\",OTHERS,False\nmp-1187318,\"{'Tb': 6.0, 'Pr': 2.0}\",\"('Pr', 'Tb')\",OTHERS,False\nmp-1224843,\"{'Ga': 1.0, 'Mo': 4.0, 'Se': 4.0, 'S': 4.0}\",\"('Ga', 'Mo', 'S', 'Se')\",OTHERS,False\nmp-1216295,\"{'V': 1.0, 'Re': 11.0, 'B': 4.0}\",\"('B', 'Re', 'V')\",OTHERS,False\nmp-1217611,\"{'Ti': 2.0, 'Fe': 4.0, 'Bi': 4.0, 'Pb': 2.0, 'O': 18.0}\",\"('Bi', 'Fe', 'O', 'Pb', 'Ti')\",OTHERS,False\nmp-1186280,\"{'Nd': 3.0, 'Ti': 1.0}\",\"('Nd', 'Ti')\",OTHERS,False\nmp-1192484,\"{'Y': 20.0, 'Cd': 6.0, 'Ru': 2.0}\",\"('Cd', 'Ru', 'Y')\",OTHERS,False\nmp-1201180,\"{'Mn': 2.0, 'Fe': 4.0, 'P': 4.0, 'O': 32.0}\",\"('Fe', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1191469,\"{'Cd': 5.0, 'N': 2.0, 'O': 16.0}\",\"('Cd', 'N', 'O')\",OTHERS,False\nmp-1199635,\"{'Cu': 4.0, 'C': 32.0, 'N': 8.0, 'Cl': 16.0}\",\"('C', 'Cl', 'Cu', 'N')\",OTHERS,False\nmp-27252,\"{'Cd': 4.0, 'I': 12.0, 'Tl': 4.0}\",\"('Cd', 'I', 'Tl')\",OTHERS,False\nmp-1076508,\"{'La': 4.0, 'Cr': 4.0, 'O': 10.0}\",\"('Cr', 'La', 'O')\",OTHERS,False\nmp-17283,\"{'K': 12.0, 'Se': 16.0, 'Nb': 4.0}\",\"('K', 'Nb', 'Se')\",OTHERS,False\nmp-485,\"{'Ni': 6.0, 'Zr': 2.0}\",\"('Ni', 'Zr')\",OTHERS,False\nmvc-2260,\"{'Cr': 9.0, 'O': 13.0}\",\"('Cr', 'O')\",OTHERS,False\nmp-1029726,\"{'Li': 12.0, 'Ir': 2.0, 'N': 8.0}\",\"('Ir', 'Li', 'N')\",OTHERS,False\nmp-30403,\"{'Li': 2.0, 'Au': 1.0, 'Pb': 1.0}\",\"('Au', 'Li', 'Pb')\",OTHERS,False\nmp-1212145,\"{'K': 12.0, 'Be': 12.0, 'B': 12.0, 'P': 24.0, 'O': 100.0}\",\"('B', 'Be', 'K', 'O', 'P')\",OTHERS,False\nmp-1207603,\"{'Y': 1.0, 'Ga': 3.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Ga', 'O', 'Y')\",OTHERS,False\nmp-1113032,\"{'Cs': 2.0, 'K': 1.0, 'Ta': 1.0, 'F': 6.0}\",\"('Cs', 'F', 'K', 'Ta')\",OTHERS,False\nmvc-10179,\"{'Ca': 4.0, 'P': 8.0, 'W': 8.0, 'O': 32.0}\",\"('Ca', 'O', 'P', 'W')\",OTHERS,False\nmp-862657,\"{'Li': 1.0, 'Cu': 1.0, 'Pd': 2.0}\",\"('Cu', 'Li', 'Pd')\",OTHERS,False\nmp-1078573,\"{'Ge': 2.0, 'H': 8.0}\",\"('Ge', 'H')\",OTHERS,False\nmvc-10236,\"{'Mg': 6.0, 'Ni': 12.0, 'O': 24.0}\",\"('Mg', 'Ni', 'O')\",OTHERS,False\nmp-1201338,\"{'V': 12.0, 'O': 26.0}\",\"('O', 'V')\",OTHERS,False\nmp-1196235,\"{'Sm': 8.0, 'U': 4.0, 'Se': 20.0}\",\"('Se', 'Sm', 'U')\",OTHERS,False\nmp-1247301,\"{'Co': 3.0, 'C': 6.0, 'N': 9.0}\",\"('C', 'Co', 'N')\",OTHERS,False\nmp-770332,\"{'Na': 2.0, 'Bi': 2.0, 'C': 2.0, 'S': 2.0, 'O': 14.0}\",\"('Bi', 'C', 'Na', 'O', 'S')\",OTHERS,False\nmp-31080,\"{'Al': 2.0, 'Si': 2.0, 'Y': 2.0}\",\"('Al', 'Si', 'Y')\",OTHERS,False\nmp-1202849,\"{'Sr': 2.0, 'H': 36.0, 'Cl': 4.0, 'O': 34.0}\",\"('Cl', 'H', 'O', 'Sr')\",OTHERS,False\nmp-556573,\"{'K': 8.0, 'W': 4.0, 'C': 8.0, 'O': 36.0}\",\"('C', 'K', 'O', 'W')\",OTHERS,False\nmp-1248182,\"{'Na': 4.0, 'Al': 11.0, 'Si': 13.0, 'Ag': 7.0, 'O': 48.0}\",\"('Ag', 'Al', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1209156,\"{'Sb': 4.0, 'C': 8.0, 'O': 20.0}\",\"('C', 'O', 'Sb')\",OTHERS,False\nmp-1228559,\"{'Al': 5.0, 'Ni': 41.0, 'B': 12.0}\",\"('Al', 'B', 'Ni')\",OTHERS,False\nmp-766112,\"{'Li': 8.0, 'Mn': 2.0, 'V': 6.0, 'P': 16.0, 'O': 56.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1247552,\"{'Na': 2.0, 'Ti': 1.0, 'N': 2.0}\",\"('N', 'Na', 'Ti')\",OTHERS,False\nmp-1040029,\"{'Rb': 1.0, 'La': 1.0, 'Mg': 30.0, 'O': 32.0}\",\"('La', 'Mg', 'O', 'Rb')\",OTHERS,False\nmp-1204691,\"{'Pr': 4.0, 'B': 20.0, 'O': 40.0}\",\"('B', 'O', 'Pr')\",OTHERS,False\nmp-13126,\"{'N': 2.0, 'Zr': 2.0}\",\"('N', 'Zr')\",OTHERS,False\nmp-559631,\"{'Bi': 12.0, 'Rh': 24.0, 'O': 58.0}\",\"('Bi', 'O', 'Rh')\",OTHERS,False\nmp-1039945,\"{'Rb': 1.0, 'Mg': 30.0, 'Si': 1.0, 'O': 32.0}\",\"('Mg', 'O', 'Rb', 'Si')\",OTHERS,False\nmp-1025175,\"{'Lu': 2.0, 'Cr': 2.0, 'C': 3.0}\",\"('C', 'Cr', 'Lu')\",OTHERS,False\nmp-772255,\"{'Cu': 6.0, 'P': 6.0, 'O': 18.0}\",\"('Cu', 'O', 'P')\",OTHERS,False\nmp-1227177,\"{'Ca': 1.0, 'Eu': 1.0, 'Si': 4.0}\",\"('Ca', 'Eu', 'Si')\",OTHERS,False\nmp-777003,\"{'Fe': 7.0, 'Te': 1.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'O', 'P', 'Te')\",OTHERS,False\nmp-1217422,\"{'Tc': 1.0, 'Rh': 1.0}\",\"('Rh', 'Tc')\",OTHERS,False\nmp-1215887,\"{'Y': 1.0, 'U': 1.0, 'Cu': 4.0, 'Si': 4.0}\",\"('Cu', 'Si', 'U', 'Y')\",OTHERS,False\nmp-765294,\"{'Sr': 2.0, 'P': 4.0, 'H': 8.0, 'O': 12.0}\",\"('H', 'O', 'P', 'Sr')\",OTHERS,False\nmp-1223068,\"{'Li': 14.0, 'Eu': 16.0, 'Si': 8.0, 'Cl': 14.0, 'O': 32.0}\",\"('Cl', 'Eu', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1176274,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1038357,\"{'Hf': 1.0, 'Mg': 30.0, 'Bi': 1.0, 'O': 32.0}\",\"('Bi', 'Hf', 'Mg', 'O')\",OTHERS,False\nmp-1211511,\"{'K': 4.0, 'Tl': 8.0}\",\"('K', 'Tl')\",OTHERS,False\nmp-1213389,\"{'Cs': 2.0, 'Lu': 2.0, 'Ta': 12.0, 'Br': 36.0}\",\"('Br', 'Cs', 'Lu', 'Ta')\",OTHERS,False\nmp-755385,\"{'Fe': 6.0, 'O': 2.0, 'F': 10.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-704268,\"{'Mn': 36.0, 'Ag': 48.0, 'O': 96.0}\",\"('Ag', 'Mn', 'O')\",OTHERS,False\nmp-35822,\"{'Li': 8.0, 'O': 8.0, 'Si': 2.0}\",\"('Li', 'O', 'Si')\",OTHERS,False\nmp-1192080,\"{'Nd': 2.0, 'Mn': 3.0, 'Sb': 4.0, 'S': 12.0}\",\"('Mn', 'Nd', 'S', 'Sb')\",OTHERS,False\nmp-684493,\"{'Li': 4.0, 'Sn': 8.0, 'P': 12.0, 'O': 40.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1193479,\"{'U': 6.0, 'O': 22.0}\",\"('O', 'U')\",OTHERS,False\nmp-1200133,\"{'Mg': 4.0, 'Cu': 4.0, 'C': 4.0, 'O': 20.0}\",\"('C', 'Cu', 'Mg', 'O')\",OTHERS,False\nmp-30247,\"{'H': 2.0, 'O': 2.0, 'Mg': 1.0}\",\"('H', 'Mg', 'O')\",OTHERS,False\nmp-1079587,\"{'Yb': 4.0, 'Pd': 4.0}\",\"('Pd', 'Yb')\",OTHERS,False\nmp-14578,\"{'S': 44.0, 'Cs': 16.0, 'Ta': 8.0}\",\"('Cs', 'S', 'Ta')\",OTHERS,False\nmp-12565,\"{'Mn': 1.0, 'Au': 4.0}\",\"('Au', 'Mn')\",OTHERS,False\nmp-766028,\"{'K': 4.0, 'Li': 5.0, 'Ti': 8.0, 'P': 8.0, 'O': 40.0}\",\"('K', 'Li', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1096760,\"{'Ti': 1.0, 'Al': 1.0, 'Ir': 2.0}\",\"('Al', 'Ir', 'Ti')\",OTHERS,False\nmp-561108,\"{'Y': 4.0, 'I': 12.0, 'O': 36.0}\",\"('I', 'O', 'Y')\",OTHERS,False\nmvc-1192,\"{'Ba': 2.0, 'Sn': 3.0, 'O': 7.0}\",\"('Ba', 'O', 'Sn')\",OTHERS,False\nmp-849518,\"{'Mn': 12.0, 'O': 7.0, 'F': 17.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1175125,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-561008,\"{'Ca': 8.0, 'P': 16.0, 'O': 48.0}\",\"('Ca', 'O', 'P')\",OTHERS,False\nmp-1190821,\"{'Y': 2.0, 'Fe': 17.0, 'C': 3.0}\",\"('C', 'Fe', 'Y')\",OTHERS,False\nmp-11473,\"{'Hg': 1.0, 'Tl': 1.0}\",\"('Hg', 'Tl')\",OTHERS,False\nmp-2242,\"{'S': 4.0, 'Ge': 4.0}\",\"('Ge', 'S')\",OTHERS,False\nmp-772590,\"{'Li': 12.0, 'V': 4.0, 'B': 8.0, 'S': 2.0, 'O': 32.0}\",\"('B', 'Li', 'O', 'S', 'V')\",OTHERS,False\nmp-759535,\"{'Na': 12.0, 'Cu': 20.0, 'O': 16.0}\",\"('Cu', 'Na', 'O')\",OTHERS,False\nmp-504735,\"{'Ni': 12.0, 'Ti': 12.0, 'O': 4.0}\",\"('Ni', 'O', 'Ti')\",OTHERS,False\nmp-755794,\"{'Rb': 6.0, 'Lu': 2.0, 'O': 6.0}\",\"('Lu', 'O', 'Rb')\",OTHERS,False\nmp-972866,\"{'Sc': 2.0, 'Pd': 1.0, 'Au': 1.0}\",\"('Au', 'Pd', 'Sc')\",OTHERS,False\nmp-13240,\"{'Sc': 1.0, 'Cu': 4.0, 'In': 1.0}\",\"('Cu', 'In', 'Sc')\",OTHERS,False\nmp-1198692,\"{'Ti': 20.0, 'Ge': 16.0}\",\"('Ge', 'Ti')\",OTHERS,False\nmp-770173,\"{'Mg': 4.0, 'Mn': 6.0, 'O': 16.0}\",\"('Mg', 'Mn', 'O')\",OTHERS,False\nmp-1211262,\"{'La': 2.0, 'B': 2.0, 'Pt': 8.0}\",\"('B', 'La', 'Pt')\",OTHERS,False\nmp-8806,\"{'Sr': 4.0, 'Cu': 4.0, 'O': 6.0}\",\"('Cu', 'O', 'Sr')\",OTHERS,False\nmp-1198034,\"{'Cd': 4.0, 'H': 20.0, 'Br': 12.0, 'N': 8.0}\",\"('Br', 'Cd', 'H', 'N')\",OTHERS,False\nmp-1185732,\"{'Mg': 16.0, 'Ta': 1.0, 'Al': 12.0}\",\"('Al', 'Mg', 'Ta')\",OTHERS,False\nmp-865025,\"{'Hf': 1.0, 'Ta': 1.0, 'Re': 2.0}\",\"('Hf', 'Re', 'Ta')\",OTHERS,False\nmp-734875,\"{'H': 4.0, 'Pb': 8.0, 'C': 2.0, 'Cl': 12.0, 'O': 8.0}\",\"('C', 'Cl', 'H', 'O', 'Pb')\",OTHERS,False\nmp-1195066,\"{'Cs': 14.0, 'Fe': 8.0, 'S': 16.0}\",\"('Cs', 'Fe', 'S')\",OTHERS,False\nmp-1210767,\"{'Pr': 12.0, 'In': 1.0, 'Co': 6.0}\",\"('Co', 'In', 'Pr')\",OTHERS,False\nmp-758993,\"{'Li': 8.0, 'Cr': 8.0, 'P': 8.0, 'O': 28.0, 'F': 8.0}\",\"('Cr', 'F', 'Li', 'O', 'P')\",OTHERS,False\nmp-504815,\"{'Re': 10.0, 'Ni': 4.0, 'As': 24.0}\",\"('As', 'Ni', 'Re')\",OTHERS,False\nmp-30532,\"{'Zn': 2.0, 'I': 8.0, 'Tl': 4.0}\",\"('I', 'Tl', 'Zn')\",OTHERS,False\nmp-6578,\"{'B': 4.0, 'O': 48.0, 'P': 12.0, 'Ba': 12.0}\",\"('B', 'Ba', 'O', 'P')\",OTHERS,False\nmp-1227336,\"{'Ba': 1.0, 'Sr': 1.0, 'Ti': 2.0, 'O': 6.0}\",\"('Ba', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1102559,\"{'Nb': 4.0, 'Se': 8.0}\",\"('Nb', 'Se')\",OTHERS,False\nmp-1174192,\"{'Li': 4.0, 'Mn': 3.0, 'Co': 1.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-20064,\"{'Ga': 2.0, 'Dy': 1.0}\",\"('Dy', 'Ga')\",OTHERS,False\nmp-1222723,\"{'La': 1.0, 'U': 1.0, 'O': 4.0}\",\"('La', 'O', 'U')\",OTHERS,False\nmp-744386,\"{'Al': 9.0, 'Fe': 2.0, 'Si': 4.0, 'H': 1.0, 'O': 24.0}\",\"('Al', 'Fe', 'H', 'O', 'Si')\",OTHERS,False\nmp-865032,\"{'Mn': 2.0, 'Pt': 1.0, 'Rh': 1.0}\",\"('Mn', 'Pt', 'Rh')\",OTHERS,False\nmp-643801,\"{'K': 2.0, 'H': 6.0, 'Pb': 1.0, 'O': 6.0}\",\"('H', 'K', 'O', 'Pb')\",OTHERS,False\nmp-1071252,\"{'La': 1.0, 'Ga': 2.0, 'Rh': 3.0}\",\"('Ga', 'La', 'Rh')\",OTHERS,False\nmp-1202411,\"{'Fe': 8.0, 'P': 4.0, 'H': 4.0, 'O': 12.0, 'F': 8.0}\",\"('F', 'Fe', 'H', 'O', 'P')\",OTHERS,False\nmp-20787,\"{'Fe': 4.0, 'B': 4.0}\",\"('B', 'Fe')\",OTHERS,False\nmp-556050,\"{'P': 32.0, 'S': 8.0, 'N': 48.0, 'F': 48.0}\",\"('F', 'N', 'P', 'S')\",OTHERS,False\nmp-1104424,\"{'Ba': 8.0, 'Sb': 4.0, 'H': 2.0, 'O': 1.0}\",\"('Ba', 'H', 'O', 'Sb')\",OTHERS,False\nmp-19918,\"{'Ge': 2.0, 'Gd': 2.0}\",\"('Gd', 'Ge')\",OTHERS,False\nmp-1245079,\"{'Be': 50.0, 'O': 50.0}\",\"('Be', 'O')\",OTHERS,False\nmp-1228533,\"{'Ba': 2.0, 'Sr': 1.0, 'Ca': 3.0, 'Mg': 2.0, 'Si': 4.0, 'O': 16.0}\",\"('Ba', 'Ca', 'Mg', 'O', 'Si', 'Sr')\",OTHERS,False\nmp-1186660,\"{'Pu': 1.0, 'Cd': 1.0, 'Hg': 2.0}\",\"('Cd', 'Hg', 'Pu')\",OTHERS,False\nmp-979137,\"{'Sr': 1.0, 'Ga': 1.0, 'Si': 1.0, 'H': 1.0}\",\"('Ga', 'H', 'Si', 'Sr')\",OTHERS,False\nmp-754756,\"{'Li': 2.0, 'Ni': 1.0, 'O': 2.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmp-1217486,\"{'Tb': 2.0, 'Mn': 2.0, 'Fe': 2.0}\",\"('Fe', 'Mn', 'Tb')\",OTHERS,False\nmp-29912,\"{'Sb': 16.0, 'Mo': 8.0, 'Se': 8.0}\",\"('Mo', 'Sb', 'Se')\",OTHERS,False\nmp-1226515,\"{'Ce': 1.0, 'Mn': 1.0, 'Si': 2.0, 'Pd': 1.0}\",\"('Ce', 'Mn', 'Pd', 'Si')\",OTHERS,False\nmp-24420,\"{'H': 2.0, 'Se': 1.0}\",\"('H', 'Se')\",OTHERS,False\nmp-1219026,\"{'Sm': 1.0, 'Y': 1.0, 'Fe': 17.0}\",\"('Fe', 'Sm', 'Y')\",OTHERS,False\nmp-753172,\"{'Li': 4.0, 'Cr': 5.0, 'O': 10.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-1184970,\"{'Li': 2.0, 'Hg': 1.0, 'Bi': 1.0}\",\"('Bi', 'Hg', 'Li')\",OTHERS,False\nmp-974061,\"{'K': 1.0, 'Si': 1.0, 'O': 3.0}\",\"('K', 'O', 'Si')\",OTHERS,False\nmp-1097667,\"{'Y': 1.0, 'Sc': 1.0, 'Tl': 2.0}\",\"('Sc', 'Tl', 'Y')\",OTHERS,False\nmp-26304,\"{'O': 32.0, 'P': 8.0, 'Cu': 9.0}\",\"('Cu', 'O', 'P')\",OTHERS,False\nmp-775479,\"{'Li': 8.0, 'Fe': 12.0, 'Cu': 4.0, 'O': 32.0}\",\"('Cu', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1019797,\"{'K': 20.0, 'B': 4.0, 'S': 16.0, 'O': 64.0}\",\"('B', 'K', 'O', 'S')\",OTHERS,False\nmp-1218425,\"{'Sr': 3.0, 'Ta': 1.0, 'Co': 1.0, 'O': 7.0}\",\"('Co', 'O', 'Sr', 'Ta')\",OTHERS,False\nmp-1208499,\"{'Tb': 12.0, 'Nb': 8.0, 'Al': 86.0}\",\"('Al', 'Nb', 'Tb')\",OTHERS,False\nmp-1025834,\"{'Te': 2.0, 'Mo': 1.0, 'W': 2.0, 'Se': 4.0}\",\"('Mo', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1207401,\"{'Zn': 2.0, 'Se': 2.0, 'O': 10.0}\",\"('O', 'Se', 'Zn')\",OTHERS,False\nmp-11560,\"{'Si': 6.0, 'Ti': 6.0, 'Ru': 6.0}\",\"('Ru', 'Si', 'Ti')\",OTHERS,False\nmp-770905,\"{'Li': 2.0, 'Mn': 2.0, 'As': 2.0, 'C': 2.0, 'O': 14.0}\",\"('As', 'C', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-754642,\"{'Mn': 4.0, 'Fe': 2.0, 'O': 8.0}\",\"('Fe', 'Mn', 'O')\",OTHERS,False\nmp-753461,\"{'Li': 4.0, 'Mn': 3.0, 'O': 1.0, 'F': 11.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1192180,\"{'Tm': 8.0, 'P': 8.0, 'S': 8.0}\",\"('P', 'S', 'Tm')\",OTHERS,False\nmp-1185721,\"{'Mg': 16.0, 'Al': 12.0, 'Zn': 1.0}\",\"('Al', 'Mg', 'Zn')\",OTHERS,False\nmp-1182691,\"{'Mg': 16.0, 'Si': 24.0, 'O': 92.0}\",\"('Mg', 'O', 'Si')\",OTHERS,False\nmp-555117,\"{'Cs': 16.0, 'Bi': 32.0, 'O': 56.0}\",\"('Bi', 'Cs', 'O')\",OTHERS,False\nmp-772482,\"{'Mn': 3.0, 'Sn': 3.0, 'Te': 2.0, 'O': 16.0}\",\"('Mn', 'O', 'Sn', 'Te')\",OTHERS,False\nmp-1266421,\"{'Si': 12.0, 'Bi': 18.0, 'O': 52.0}\",\"('Bi', 'O', 'Si')\",OTHERS,False\nmp-1245456,\"{'Cu': 16.0, 'Ge': 16.0, 'N': 32.0}\",\"('Cu', 'Ge', 'N')\",OTHERS,False\nmp-757620,\"{'Li': 4.0, 'V': 4.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-771660,\"{'Mn': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Mn', 'O', 'P')\",OTHERS,False\nmp-24199,\"{'H': 1.0, 'Li': 1.0, 'F': 2.0}\",\"('F', 'H', 'Li')\",OTHERS,False\nmvc-10039,\"{'La': 1.0, 'Cr': 1.0, 'Ni': 1.0, 'O': 6.0}\",\"('Cr', 'La', 'Ni', 'O')\",OTHERS,False\nmp-1201811,\"{'Sr': 4.0, 'O': 40.0}\",\"('O', 'Sr')\",OTHERS,False\nmp-4248,\"{'C': 2.0, 'Co': 1.0, 'Y': 1.0}\",\"('C', 'Co', 'Y')\",OTHERS,False\nmp-1025194,\"{'Pr': 2.0, 'Fe': 2.0, 'Si': 2.0, 'C': 1.0}\",\"('C', 'Fe', 'Pr', 'Si')\",OTHERS,False\nmp-998883,{'Ge': 1.0},\"('Ge',)\",OTHERS,False\nmp-9312,\"{'C': 2.0, 'Ni': 1.0, 'Pr': 1.0}\",\"('C', 'Ni', 'Pr')\",OTHERS,False\nmp-1227930,\"{'Ba': 2.0, 'La': 2.0, 'Sm': 2.0, 'Mn': 6.0, 'O': 18.0}\",\"('Ba', 'La', 'Mn', 'O', 'Sm')\",OTHERS,False\nmp-1027002,\"{'Te': 2.0, 'Mo': 1.0, 'W': 3.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-24672,\"{'H': 20.0, 'Ni': 2.0, 'Zr': 12.0, 'Sn': 4.0}\",\"('H', 'Ni', 'Sn', 'Zr')\",OTHERS,False\nmp-977368,\"{'K': 2.0, 'Dy': 4.0, 'Cu': 4.0, 'Se': 9.0}\",\"('Cu', 'Dy', 'K', 'Se')\",OTHERS,False\nmp-1407,\"{'Se': 8.0, 'Rh': 3.0}\",\"('Rh', 'Se')\",OTHERS,False\nmp-29593,\"{'P': 12.0, 'Cl': 96.0, 'Re': 8.0}\",\"('Cl', 'P', 'Re')\",OTHERS,False\nmp-1216835,\"{'Tl': 1.0, 'V': 12.0, 'S': 16.0}\",\"('S', 'Tl', 'V')\",OTHERS,False\nmp-1218367,\"{'Sr': 3.0, 'Ca': 1.0, 'S': 4.0}\",\"('Ca', 'S', 'Sr')\",OTHERS,False\nmp-1245115,\"{'Sn': 40.0, 'O': 40.0}\",\"('O', 'Sn')\",OTHERS,False\nmp-758707,\"{'Li': 8.0, 'Mn': 12.0, 'W': 4.0, 'O': 32.0}\",\"('Li', 'Mn', 'O', 'W')\",OTHERS,False\nmp-14322,\"{'O': 9.0, 'Ba': 3.0, 'Tm': 4.0}\",\"('Ba', 'O', 'Tm')\",OTHERS,False\nmp-672344,\"{'Ce': 4.0, 'Al': 20.0, 'Pt': 12.0}\",\"('Al', 'Ce', 'Pt')\",OTHERS,False\nmp-1192281,\"{'Cs': 1.0, 'B': 12.0, 'O': 12.0}\",\"('B', 'Cs', 'O')\",OTHERS,False\nmp-1178459,\"{'Cr': 12.0, 'Fe': 7.0, 'O': 48.0}\",\"('Cr', 'Fe', 'O')\",OTHERS,False\nmp-568619,\"{'Si': 5.0, 'C': 5.0}\",\"('C', 'Si')\",OTHERS,False\nmp-1071438,\"{'Gd': 1.0, 'Ni': 4.0, 'Au': 1.0}\",\"('Au', 'Gd', 'Ni')\",OTHERS,False\nmp-1209830,\"{'P': 1.0, 'Br': 2.0}\",\"('Br', 'P')\",OTHERS,False\nmp-764879,\"{'V': 8.0, 'O': 6.0, 'F': 18.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-22919,\"{'Ag': 1.0, 'I': 1.0}\",\"('Ag', 'I')\",OTHERS,False\nmp-16830,\"{'B': 6.0, 'Ni': 12.0, 'Sr': 1.0}\",\"('B', 'Ni', 'Sr')\",OTHERS,False\nmp-1102848,\"{'La': 3.0, 'Ir': 9.0}\",\"('Ir', 'La')\",OTHERS,False\nmp-1096160,\"{'Sr': 2.0, 'In': 1.0, 'Hg': 1.0}\",\"('Hg', 'In', 'Sr')\",OTHERS,False\nmp-704317,\"{'K': 8.0, 'Cu': 12.0, 'Mo': 16.0, 'O': 64.0}\",\"('Cu', 'K', 'Mo', 'O')\",OTHERS,False\nmp-1093901,\"{'Zr': 1.0, 'Sb': 1.0, 'Ru': 2.0}\",\"('Ru', 'Sb', 'Zr')\",OTHERS,False\nmp-1205061,\"{'Zr': 5.0, 'Tl': 20.0, 'Se': 20.0}\",\"('Se', 'Tl', 'Zr')\",OTHERS,False\nmp-1183178,\"{'Ag': 2.0, 'As': 2.0}\",\"('Ag', 'As')\",OTHERS,False\nmp-19123,\"{'Li': 2.0, 'O': 8.0, 'V': 2.0, 'Rb': 4.0}\",\"('Li', 'O', 'Rb', 'V')\",OTHERS,False\nmp-752757,\"{'V': 4.0, 'O': 2.0, 'F': 10.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-1215929,\"{'Y': 2.0, 'Mg': 2.0, 'Al': 8.0}\",\"('Al', 'Mg', 'Y')\",OTHERS,False\nmp-669564,\"{'Cs': 4.0, 'Re': 24.0, 'S': 32.0, 'Br': 12.0}\",\"('Br', 'Cs', 'Re', 'S')\",OTHERS,False\nmp-1080131,\"{'Cu': 2.0, 'Si': 1.0, 'Hg': 1.0, 'Te': 4.0}\",\"('Cu', 'Hg', 'Si', 'Te')\",OTHERS,False\nmp-1091371,\"{'Bi': 4.0, 'O': 6.0}\",\"('Bi', 'O')\",OTHERS,False\nmp-7342,\"{'Sm': 12.0, 'Ir': 4.0}\",\"('Ir', 'Sm')\",OTHERS,False\nmp-1019596,\"{'Ce': 2.0, 'Zr': 2.0, 'O': 8.0}\",\"('Ce', 'O', 'Zr')\",OTHERS,False\nmp-1216527,\"{'Tl': 1.0, 'In': 1.0}\",\"('In', 'Tl')\",OTHERS,False\nmp-766254,\"{'Cu': 4.0, 'P': 12.0, 'O': 36.0}\",\"('Cu', 'O', 'P')\",OTHERS,False\nmp-849611,\"{'Li': 8.0, 'Mn': 12.0, 'B': 12.0, 'O': 36.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1216714,\"{'Ti': 2.0, 'Nb': 2.0, 'Al': 2.0, 'C': 2.0}\",\"('Al', 'C', 'Nb', 'Ti')\",OTHERS,False\nmp-1210996,\"{'Mg': 4.0, 'Al': 6.0, 'Si': 12.0, 'O': 36.0}\",\"('Al', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-30340,\"{'Ag': 2.0, 'In': 1.0, 'Er': 1.0}\",\"('Ag', 'Er', 'In')\",OTHERS,False\nmp-1215622,\"{'Zn': 1.0, 'Cu': 2.0, 'Sn': 1.0, 'Se': 3.0, 'S': 1.0}\",\"('Cu', 'S', 'Se', 'Sn', 'Zn')\",OTHERS,False\nmp-1185959,\"{'Mg': 2.0, 'S': 4.0}\",\"('Mg', 'S')\",OTHERS,False\nmp-8860,\"{'Na': 3.0, 'As': 1.0}\",\"('As', 'Na')\",OTHERS,False\nmp-770833,\"{'Li': 8.0, 'Sn': 4.0, 'B': 4.0, 'O': 16.0}\",\"('B', 'Li', 'O', 'Sn')\",OTHERS,False\nmp-631388,\"{'Cd': 1.0, 'Ir': 1.0, 'Ru': 1.0}\",\"('Cd', 'Ir', 'Ru')\",OTHERS,False\nmp-867352,\"{'Tc': 2.0, 'Rh': 6.0}\",\"('Rh', 'Tc')\",OTHERS,False\nmp-777902,\"{'Ti': 3.0, 'Mn': 2.0, 'Cu': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Cu', 'Mn', 'O', 'P', 'Ti')\",OTHERS,False\nmp-772144,\"{'Mn': 5.0, 'V': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Mn', 'O', 'P', 'V')\",OTHERS,False\nmvc-11476,\"{'Mg': 1.0, 'V': 4.0, 'S': 8.0}\",\"('Mg', 'S', 'V')\",OTHERS,False\nmp-505603,\"{'Pb': 20.0, 'S': 4.0, 'O': 32.0}\",\"('O', 'Pb', 'S')\",OTHERS,False\nmp-780319,\"{'Li': 6.0, 'Mn': 2.0, 'P': 4.0, 'H': 4.0, 'O': 18.0}\",\"('H', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-752550,\"{'Li': 3.0, 'Ni': 1.0, 'O': 1.0, 'F': 3.0}\",\"('F', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-1207436,\"{'Zr': 9.0, 'Pd': 11.0}\",\"('Pd', 'Zr')\",OTHERS,False\nmp-4431,\"{'S': 6.0, 'As': 2.0, 'Ag': 6.0}\",\"('Ag', 'As', 'S')\",OTHERS,False\nmp-555707,\"{'S': 16.0, 'N': 8.0, 'O': 12.0, 'F': 4.0}\",\"('F', 'N', 'O', 'S')\",OTHERS,False\nmp-13998,\"{'O': 32.0, 'Na': 40.0, 'Al': 8.0}\",\"('Al', 'Na', 'O')\",OTHERS,False\nmp-863295,\"{'Cs': 4.0, 'V': 4.0, 'Ga': 4.0, 'P': 8.0, 'O': 40.0}\",\"('Cs', 'Ga', 'O', 'P', 'V')\",OTHERS,False\nmp-504714,\"{'O': 26.0, 'I': 2.0, 'Ni': 6.0, 'B': 14.0}\",\"('B', 'I', 'Ni', 'O')\",OTHERS,False\nmp-773135,\"{'Li': 6.0, 'Cu': 6.0, 'P': 4.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-1101665,\"{'Na': 2.0, 'Li': 10.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'Na', 'O', 'P')\",OTHERS,False\nmp-1226052,\"{'Co': 1.0, 'Cu': 2.0, 'Ge': 1.0, 'Se': 4.0}\",\"('Co', 'Cu', 'Ge', 'Se')\",OTHERS,False\nmp-19090,\"{'O': 12.0, 'Mn': 2.0, 'Mo': 2.0, 'Te': 2.0}\",\"('Mn', 'Mo', 'O', 'Te')\",OTHERS,False\nmp-1207317,\"{'U': 2.0, 'P': 3.0}\",\"('P', 'U')\",OTHERS,False\nmp-1184294,\"{'Fe': 2.0, 'Ag': 6.0}\",\"('Ag', 'Fe')\",OTHERS,False\nmp-13236,\"{'Si': 6.0, 'Ho': 10.0}\",\"('Ho', 'Si')\",OTHERS,False\nmp-862543,\"{'Sc': 2.0, 'Al': 1.0, 'Tc': 1.0}\",\"('Al', 'Sc', 'Tc')\",OTHERS,False\nmp-762282,\"{'Li': 3.0, 'Cr': 5.0, 'O': 10.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-1187636,\"{'Tm': 3.0, 'Hg': 1.0}\",\"('Hg', 'Tm')\",OTHERS,False\nmp-1080467,\"{'K': 1.0, 'Cd': 4.0, 'P': 3.0}\",\"('Cd', 'K', 'P')\",OTHERS,False\nmp-866031,\"{'Al': 2.0, 'Fe': 1.0, 'Ir': 1.0}\",\"('Al', 'Fe', 'Ir')\",OTHERS,False\nmp-1020636,\"{'Zn': 16.0, 'Si': 8.0, 'O': 32.0}\",\"('O', 'Si', 'Zn')\",OTHERS,False\nmp-24105,\"{'H': 2.0, 'O': 2.0, 'Co': 1.0}\",\"('Co', 'H', 'O')\",OTHERS,False\nmp-1103596,\"{'Ce': 1.0, 'Ge': 4.0, 'Rh': 6.0}\",\"('Ce', 'Ge', 'Rh')\",OTHERS,False\nmp-1186751,\"{'Pr': 1.0, 'Ho': 1.0, 'Tl': 2.0}\",\"('Ho', 'Pr', 'Tl')\",OTHERS,False\nmvc-12394,\"{'Mg': 4.0, 'Ti': 8.0, 'O': 16.0}\",\"('Mg', 'O', 'Ti')\",OTHERS,False\nmp-1198811,\"{'Ca': 4.0, 'Hg': 4.0, 'C': 16.0, 'S': 16.0, 'N': 16.0, 'O': 12.0}\",\"('C', 'Ca', 'Hg', 'N', 'O', 'S')\",OTHERS,False\nmp-1185886,\"{'Mg': 2.0, 'Hg': 4.0}\",\"('Hg', 'Mg')\",OTHERS,False\nmp-1247072,\"{'Ba': 12.0, 'Ru': 8.0, 'N': 16.0}\",\"('Ba', 'N', 'Ru')\",OTHERS,False\nmp-1147572,\"{'La': 2.0, 'Pd': 1.0, 'O': 2.0, 'F': 2.0}\",\"('F', 'La', 'O', 'Pd')\",OTHERS,False\nmp-1113362,\"{'Cs': 2.0, 'Ce': 1.0, 'Cu': 1.0, 'I': 6.0}\",\"('Ce', 'Cs', 'Cu', 'I')\",OTHERS,False\nmp-1018707,\"{'Gd': 2.0, 'Se': 4.0}\",\"('Gd', 'Se')\",OTHERS,False\nmp-765988,\"{'Li': 1.0, 'V': 1.0, 'Fe': 1.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('Fe', 'H', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1039915,\"{'Na': 1.0, 'Mg': 30.0, 'Si': 1.0, 'O': 32.0}\",\"('Mg', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1219577,\"{'Rb': 2.0, 'Ta': 4.0, 'O': 12.0}\",\"('O', 'Rb', 'Ta')\",OTHERS,False\nmp-11507,\"{'Ni': 4.0, 'Mo': 1.0}\",\"('Mo', 'Ni')\",OTHERS,False\nmp-1220452,\"{'Nb': 1.0, 'Cu': 3.0, 'Se': 2.0, 'S': 2.0}\",\"('Cu', 'Nb', 'S', 'Se')\",OTHERS,False\nmp-1183920,\"{'Cs': 1.0, 'Pa': 1.0, 'O': 3.0}\",\"('Cs', 'O', 'Pa')\",OTHERS,False\nmp-542884,\"{'S': 8.0, 'Rb': 8.0, 'Be': 4.0, 'O': 40.0, 'H': 16.0}\",\"('Be', 'H', 'O', 'Rb', 'S')\",OTHERS,False\nmp-754224,\"{'Ba': 2.0, 'Sr': 4.0, 'I': 12.0}\",\"('Ba', 'I', 'Sr')\",OTHERS,False\nmp-975422,\"{'Rb': 2.0, 'F': 6.0}\",\"('F', 'Rb')\",OTHERS,False\nmp-767435,\"{'P': 12.0, 'W': 8.0, 'O': 48.0}\",\"('O', 'P', 'W')\",OTHERS,False\nmp-1184260,\"{'Fe': 3.0, 'Cu': 1.0}\",\"('Cu', 'Fe')\",OTHERS,False\nmp-1202260,\"{'Lu': 4.0, 'Ni': 34.0}\",\"('Lu', 'Ni')\",OTHERS,False\nmp-759330,\"{'Rb': 16.0, 'Ge': 36.0, 'H': 60.0, 'N': 20.0}\",\"('Ge', 'H', 'N', 'Rb')\",OTHERS,False\nmp-674982,\"{'Li': 19.0, 'Mn': 5.0, 'N': 9.0}\",\"('Li', 'Mn', 'N')\",OTHERS,False\nmp-9295,\"{'Cu': 3.0, 'Te': 4.0, 'Ta': 1.0}\",\"('Cu', 'Ta', 'Te')\",OTHERS,False\nmp-31950,\"{'Li': 2.0, 'O': 24.0, 'P': 8.0, 'Mn': 2.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1197228,\"{'Ni': 2.0, 'P': 8.0, 'H': 36.0, 'C': 4.0, 'N': 4.0, 'O': 30.0}\",\"('C', 'H', 'N', 'Ni', 'O', 'P')\",OTHERS,False\nmp-18199,\"{'O': 4.0, 'As': 12.0, 'Sr': 12.0, 'Ta': 4.0}\",\"('As', 'O', 'Sr', 'Ta')\",OTHERS,False\nmp-1245716,\"{'Mg': 4.0, 'Re': 4.0, 'N': 8.0}\",\"('Mg', 'N', 'Re')\",OTHERS,False\nmp-685928,\"{'Rb': 10.0, 'Tc': 6.0, 'S': 14.0}\",\"('Rb', 'S', 'Tc')\",OTHERS,False\nmp-1218958,\"{'Sn': 1.0, 'Pb': 4.0, 'Se': 5.0}\",\"('Pb', 'Se', 'Sn')\",OTHERS,False\nmp-1103838,\"{'Pd': 4.0, 'Pb': 2.0, 'O': 8.0}\",\"('O', 'Pb', 'Pd')\",OTHERS,False\nmp-1013560,\"{'Ba': 3.0, 'As': 2.0}\",\"('As', 'Ba')\",OTHERS,False\nmp-1188045,\"{'Zr': 2.0, 'Mn': 6.0}\",\"('Mn', 'Zr')\",OTHERS,False\nmp-1227286,\"{'Ba': 1.0, 'Y': 1.0, 'Mn': 1.0, 'Co': 1.0, 'O': 5.0}\",\"('Ba', 'Co', 'Mn', 'O', 'Y')\",OTHERS,False\nmp-1227505,\"{'Ca': 1.0, 'V': 4.0, 'Co': 1.0, 'Cu': 2.0, 'O': 12.0}\",\"('Ca', 'Co', 'Cu', 'O', 'V')\",OTHERS,False\nmp-771121,\"{'La': 8.0, 'Hf': 4.0, 'O': 20.0}\",\"('Hf', 'La', 'O')\",OTHERS,False\nmp-767737,\"{'Co': 9.0, 'Cu': 3.0, 'O': 16.0}\",\"('Co', 'Cu', 'O')\",OTHERS,False\nmp-1245668,\"{'Cu': 2.0, 'As': 3.0}\",\"('As', 'Cu')\",OTHERS,False\nmp-1113444,\"{'Cs': 2.0, 'Tl': 1.0, 'Ag': 1.0, 'Br': 6.0}\",\"('Ag', 'Br', 'Cs', 'Tl')\",OTHERS,False\nmp-1196028,\"{'Lu': 8.0, 'B': 8.0, 'N': 8.0, 'O': 52.0}\",\"('B', 'Lu', 'N', 'O')\",OTHERS,False\nmp-1072114,\"{'Ho': 2.0, 'O': 2.0, 'F': 2.0}\",\"('F', 'Ho', 'O')\",OTHERS,False\nmp-1094261,\"{'Zr': 4.0, 'Sn': 4.0}\",\"('Sn', 'Zr')\",OTHERS,False\nmp-1217340,\"{'Th': 2.0, 'U': 2.0, 'B': 16.0}\",\"('B', 'Th', 'U')\",OTHERS,False\nmp-861594,\"{'Pr': 2.0, 'Tl': 1.0, 'Cd': 1.0}\",\"('Cd', 'Pr', 'Tl')\",OTHERS,False\nmp-32780,\"{'Au': 4.0, 'Cl': 4.0}\",\"('Au', 'Cl')\",OTHERS,False\nmp-1220382,\"{'Nb': 5.0, 'Se': 2.0, 'S': 2.0}\",\"('Nb', 'S', 'Se')\",OTHERS,False\nmp-1030467,\"{'Te': 4.0, 'Mo': 3.0, 'W': 1.0, 'S': 4.0}\",\"('Mo', 'S', 'Te', 'W')\",OTHERS,False\nmp-1216859,\"{'Ti': 2.0, 'Cr': 2.0, 'Sb': 2.0, 'O': 12.0}\",\"('Cr', 'O', 'Sb', 'Ti')\",OTHERS,False\nmp-1219677,\"{'Si': 18.0, 'C': 20.0, 'N': 2.0, 'O': 36.0}\",\"('C', 'N', 'O', 'Si')\",OTHERS,False\nmp-1196428,\"{'Rb': 4.0, 'B': 8.0, 'Se': 12.0, 'O': 40.0}\",\"('B', 'O', 'Rb', 'Se')\",OTHERS,False\nmp-763313,\"{'Li': 2.0, 'Co': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1223233,\"{'La': 4.0, 'V': 2.0, 'Fe': 2.0, 'O': 12.0}\",\"('Fe', 'La', 'O', 'V')\",OTHERS,False\nmp-622785,\"{'Fe': 16.0, 'S': 16.0, 'N': 16.0, 'O': 16.0}\",\"('Fe', 'N', 'O', 'S')\",OTHERS,False\nmp-768944,\"{'Li': 8.0, 'V': 8.0, 'B': 16.0, 'O': 40.0}\",\"('B', 'Li', 'O', 'V')\",OTHERS,False\nmp-1203099,\"{'Si': 12.0, 'O': 26.0}\",\"('O', 'Si')\",OTHERS,False\nmvc-10022,\"{'W': 4.0, 'O': 8.0}\",\"('O', 'W')\",OTHERS,False\nmp-768648,\"{'Li': 8.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-756332,\"{'Li': 2.0, 'Cr': 4.0, 'O': 6.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-546292,\"{'O': 2.0, 'Cl': 2.0, 'Yb': 2.0}\",\"('Cl', 'O', 'Yb')\",OTHERS,False\nmp-569673,\"{'Pr': 4.0, 'I': 8.0}\",\"('I', 'Pr')\",OTHERS,False\nmp-772624,\"{'Al': 8.0, 'C': 4.0, 'O': 4.0}\",\"('Al', 'C', 'O')\",OTHERS,False\nmp-21319,\"{'C': 1.0, 'Ce': 3.0, 'Tl': 1.0}\",\"('C', 'Ce', 'Tl')\",OTHERS,False\nmp-755771,\"{'Sr': 6.0, 'As': 4.0, 'O': 16.0}\",\"('As', 'O', 'Sr')\",OTHERS,False\nmp-1191945,\"{'Tb': 2.0, 'Fe': 17.0, 'N': 3.0}\",\"('Fe', 'N', 'Tb')\",OTHERS,False\nmp-10871,\"{'Al': 1.0, 'Au': 1.0}\",\"('Al', 'Au')\",OTHERS,False\nmp-1191664,\"{'Ta': 20.0, 'Ni': 4.0}\",\"('Ni', 'Ta')\",OTHERS,False\nmp-1481,\"{'Sn': 1.0, 'Te': 1.0}\",\"('Sn', 'Te')\",OTHERS,False\nmp-22175,\"{'C': 4.0, 'N': 4.0, 'S': 4.0, 'Eu': 2.0}\",\"('C', 'Eu', 'N', 'S')\",OTHERS,False\nmp-560038,\"{'Mn': 6.0, 'B': 14.0, 'I': 2.0, 'O': 26.0}\",\"('B', 'I', 'Mn', 'O')\",OTHERS,False\nmp-1208346,\"{'Tb': 4.0, 'Fe': 4.0, 'B': 16.0}\",\"('B', 'Fe', 'Tb')\",OTHERS,False\nmp-767279,\"{'Li': 4.0, 'Dy': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Dy', 'Li', 'O', 'P')\",OTHERS,False\nmp-1174794,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-640747,\"{'Sr': 12.0, 'Nb': 8.0, 'Co': 4.0, 'O': 36.0}\",\"('Co', 'Nb', 'O', 'Sr')\",OTHERS,False\nmp-560642,\"{'Na': 12.0, 'Sb': 4.0, 'P': 8.0, 'O': 36.0}\",\"('Na', 'O', 'P', 'Sb')\",OTHERS,False\nmp-644389,\"{'Li': 2.0, 'H': 2.0, 'Pd': 1.0}\",\"('H', 'Li', 'Pd')\",OTHERS,False\nmp-1079726,\"{'Zr': 4.0, 'Se': 2.0, 'N': 4.0}\",\"('N', 'Se', 'Zr')\",OTHERS,False\nmp-551283,\"{'O': 6.0, 'Cu': 2.0, 'Na': 2.0, 'Te': 1.0}\",\"('Cu', 'Na', 'O', 'Te')\",OTHERS,False\nmp-6501,\"{'O': 20.0, 'Zn': 4.0, 'Ba': 4.0, 'Ho': 8.0}\",\"('Ba', 'Ho', 'O', 'Zn')\",OTHERS,False\nmp-1195624,\"{'Ba': 12.0, 'Sb': 8.0, 'S': 28.0}\",\"('Ba', 'S', 'Sb')\",OTHERS,False\nmp-30943,\"{'Mg': 2.0, 'P': 2.0, 'Se': 6.0}\",\"('Mg', 'P', 'Se')\",OTHERS,False\nmp-1208029,\"{'Tm': 16.0, 'Mg': 4.0, 'Ni': 4.0}\",\"('Mg', 'Ni', 'Tm')\",OTHERS,False\nmp-699888,\"{'Na': 8.0, 'Ti': 4.0, 'Fe': 4.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'Na', 'O', 'P', 'Ti')\",OTHERS,False\nmp-764848,\"{'Li': 28.0, 'Mn': 10.0, 'F': 48.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-1182901,\"{'Al': 12.0, 'B': 10.0, 'O': 36.0}\",\"('Al', 'B', 'O')\",OTHERS,False\nmp-1201991,\"{'Yb': 2.0, 'N': 6.0, 'O': 28.0}\",\"('N', 'O', 'Yb')\",OTHERS,False\nmp-980949,\"{'W': 2.0, 'Cl': 8.0}\",\"('Cl', 'W')\",OTHERS,False\nmp-14391,\"{'O': 92.0, 'Na': 12.0, 'P': 32.0, 'V': 4.0}\",\"('Na', 'O', 'P', 'V')\",OTHERS,False\nmp-1245788,\"{'Ba': 2.0, 'Zn': 4.0, 'N': 4.0}\",\"('Ba', 'N', 'Zn')\",OTHERS,False\nmp-773007,\"{'Li': 2.0, 'Cu': 10.0, 'P': 4.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-866811,\"{'Ca': 4.0, 'Sn': 4.0, 'S': 12.0}\",\"('Ca', 'S', 'Sn')\",OTHERS,False\nmp-1184593,\"{'Ho': 2.0, 'Ir': 1.0, 'Pd': 1.0}\",\"('Ho', 'Ir', 'Pd')\",OTHERS,False\nmp-1185011,\"{'La': 3.0, 'Zr': 1.0}\",\"('La', 'Zr')\",OTHERS,False\nmp-1183543,\"{'Ca': 1.0, 'In': 1.0, 'O': 3.0}\",\"('Ca', 'In', 'O')\",OTHERS,False\nmp-1210770,\"{'Lu': 2.0, 'Ta': 10.0, 'Ag': 4.0, 'O': 30.0}\",\"('Ag', 'Lu', 'O', 'Ta')\",OTHERS,False\nmp-9029,\"{'N': 6.0, 'Ca': 6.0, 'V': 2.0}\",\"('Ca', 'N', 'V')\",OTHERS,False\nmp-1183442,\"{'Bi': 1.0, 'Pd': 2.0, 'Au': 1.0}\",\"('Au', 'Bi', 'Pd')\",OTHERS,False\nmp-703684,\"{'Mn': 1.0, 'H': 12.0, 'N': 2.0, 'Cl': 4.0, 'O': 2.0}\",\"('Cl', 'H', 'Mn', 'N', 'O')\",OTHERS,False\nmp-1205507,\"{'Eu': 2.0, 'Mg': 1.0, 'W': 1.0, 'O': 6.0}\",\"('Eu', 'Mg', 'O', 'W')\",OTHERS,False\nmp-1183201,\"{'Au': 3.0, 'Cl': 1.0}\",\"('Au', 'Cl')\",OTHERS,False\nmp-769008,\"{'Li': 8.0, 'Bi': 6.0, 'O': 16.0}\",\"('Bi', 'Li', 'O')\",OTHERS,False\nmp-1204674,\"{'Ni': 18.0, 'Te': 10.0, 'Pb': 12.0, 'O': 60.0}\",\"('Ni', 'O', 'Pb', 'Te')\",OTHERS,False\nmp-582159,\"{'Si': 8.0, 'Ni': 28.0, 'P': 20.0}\",\"('Ni', 'P', 'Si')\",OTHERS,False\nmp-17668,\"{'Ga': 14.0, 'Yb': 2.0, 'Au': 6.0}\",\"('Au', 'Ga', 'Yb')\",OTHERS,False\nmp-1213326,\"{'Cs': 2.0, 'Tm': 2.0, 'Nb': 12.0, 'Br': 36.0}\",\"('Br', 'Cs', 'Nb', 'Tm')\",OTHERS,False\nmp-30930,\"{'Al': 4.0, 'I': 12.0}\",\"('Al', 'I')\",OTHERS,False\nmp-757220,\"{'Lu': 2.0, 'H': 12.0, 'Cl': 6.0, 'O': 30.0}\",\"('Cl', 'H', 'Lu', 'O')\",OTHERS,False\nmp-1219669,\"{'Pu': 2.0, 'O': 3.0}\",\"('O', 'Pu')\",OTHERS,False\nmp-1213575,\"{'Er': 2.0, 'Zr': 12.0, 'P': 18.0, 'O': 72.0}\",\"('Er', 'O', 'P', 'Zr')\",OTHERS,False\nmp-972912,\"{'La': 3.0, 'Er': 1.0}\",\"('Er', 'La')\",OTHERS,False\nmp-720379,\"{'K': 6.0, 'Na': 2.0, 'P': 8.0, 'H': 8.0, 'O': 28.0}\",\"('H', 'K', 'Na', 'O', 'P')\",OTHERS,False\nmp-1247479,\"{'Zn': 10.0, 'Fe': 2.0, 'N': 8.0}\",\"('Fe', 'N', 'Zn')\",OTHERS,False\nmp-1097438,\"{'Hf': 2.0, 'Fe': 1.0, 'Co': 1.0}\",\"('Co', 'Fe', 'Hf')\",OTHERS,False\nmp-754496,\"{'Li': 20.0, 'Sb': 4.0, 'S': 4.0}\",\"('Li', 'S', 'Sb')\",OTHERS,False\nmp-730460,\"{'Na': 10.0, 'H': 6.0, 'C': 8.0, 'O': 24.0}\",\"('C', 'H', 'Na', 'O')\",OTHERS,False\nmp-695259,\"{'Ba': 6.0, 'Li': 2.0, 'Ti': 10.0, 'Sb': 6.0, 'O': 42.0}\",\"('Ba', 'Li', 'O', 'Sb', 'Ti')\",OTHERS,False\nmp-1213861,\"{'Co': 2.0, 'P': 4.0, 'O': 20.0}\",\"('Co', 'O', 'P')\",OTHERS,False\nmp-1182052,\"{'Ca': 10.0, 'P': 6.0, 'O': 24.0}\",\"('Ca', 'O', 'P')\",OTHERS,False\nmp-1025029,\"{'Pr': 2.0, 'H': 2.0, 'Se': 2.0}\",\"('H', 'Pr', 'Se')\",OTHERS,False\nmp-1094085,\"{'Nd': 3.0, 'Sn': 1.0, 'N': 1.0}\",\"('N', 'Nd', 'Sn')\",OTHERS,False\nmp-1186282,\"{'Nd': 3.0, 'Ti': 1.0}\",\"('Nd', 'Ti')\",OTHERS,False\nmp-676932,\"{'Eu': 2.0, 'Sr': 2.0, 'Li': 2.0, 'Te': 2.0, 'O': 12.0}\",\"('Eu', 'Li', 'O', 'Sr', 'Te')\",OTHERS,False\nmp-1194454,\"{'Si': 2.0, 'N': 8.0, 'O': 6.0, 'F': 12.0}\",\"('F', 'N', 'O', 'Si')\",OTHERS,False\nmp-1186932,\"{'Sc': 2.0, 'Ag': 1.0, 'Pt': 1.0}\",\"('Ag', 'Pt', 'Sc')\",OTHERS,False\nmp-779057,\"{'Li': 8.0, 'Fe': 8.0, 'B': 8.0, 'O': 28.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmvc-10387,\"{'Ba': 4.0, 'Zn': 4.0, 'Sn': 4.0, 'F': 28.0}\",\"('Ba', 'F', 'Sn', 'Zn')\",OTHERS,False\nmp-558446,\"{'Ag': 4.0, 'Hg': 4.0, 'S': 4.0, 'I': 4.0}\",\"('Ag', 'Hg', 'I', 'S')\",OTHERS,False\nmp-1228501,\"{'Ba': 3.0, 'La': 3.0, 'Cu': 6.0, 'O': 14.0}\",\"('Ba', 'Cu', 'La', 'O')\",OTHERS,False\nmp-23108,\"{'Na': 1.0, 'Cl': 6.0, 'Cs': 2.0, 'U': 1.0}\",\"('Cl', 'Cs', 'Na', 'U')\",OTHERS,False\nmp-715572,\"{'Fe': 16.0, 'O': 24.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-1078767,\"{'Hf': 3.0, 'Al': 3.0, 'Ni': 3.0}\",\"('Al', 'Hf', 'Ni')\",OTHERS,False\nmp-5438,\"{'B': 1.0, 'Rh': 3.0, 'Tm': 1.0}\",\"('B', 'Rh', 'Tm')\",OTHERS,False\nmp-647818,\"{'F': 12.0, 'Ni': 4.0, 'Cs': 2.0}\",\"('Cs', 'F', 'Ni')\",OTHERS,False\nmp-1212653,\"{'K': 12.0, 'Fe': 4.0, 'H': 12.0, 'C': 24.0, 'O': 48.0}\",\"('C', 'Fe', 'H', 'K', 'O')\",OTHERS,False\nmp-1066856,\"{'Ag': 2.0, 'O': 2.0}\",\"('Ag', 'O')\",OTHERS,False\nmp-1194844,\"{'Mg': 2.0, 'Bi': 4.0, 'I': 16.0, 'O': 16.0}\",\"('Bi', 'I', 'Mg', 'O')\",OTHERS,False\nmp-1106245,\"{'Zr': 10.0, 'Al': 2.0, 'Sb': 6.0}\",\"('Al', 'Sb', 'Zr')\",OTHERS,False\nmp-559713,\"{'Fe': 12.0, 'P': 16.0, 'O': 56.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-1215198,\"{'Zr': 1.0, 'U': 1.0, 'B': 24.0}\",\"('B', 'U', 'Zr')\",OTHERS,False\nmp-1185235,\"{'Li': 3.0, 'Rh': 1.0}\",\"('Li', 'Rh')\",OTHERS,False\nmp-1252085,\"{'Al': 1.0, 'W': 3.0, 'O': 8.0}\",\"('Al', 'O', 'W')\",OTHERS,False\nmp-1226663,\"{'Er': 18.0, 'B': 10.0, 'S': 42.0}\",\"('B', 'Er', 'S')\",OTHERS,False\nmp-765686,\"{'Li': 4.0, 'Co': 8.0, 'O': 2.0, 'F': 16.0}\",\"('Co', 'F', 'Li', 'O')\",OTHERS,False\nmp-753532,\"{'Nb': 4.0, 'O': 6.0, 'F': 4.0}\",\"('F', 'Nb', 'O')\",OTHERS,False\nmp-572,\"{'Cd': 1.0, 'Sm': 1.0}\",\"('Cd', 'Sm')\",OTHERS,False\nmp-1211442,\"{'Rb': 4.0, 'Pr': 4.0, 'Se': 8.0, 'O': 52.0}\",\"('O', 'Pr', 'Rb', 'Se')\",OTHERS,False\nmp-1228150,\"{'Ba': 3.0, 'La': 1.0, 'Nb': 3.0, 'O': 12.0}\",\"('Ba', 'La', 'Nb', 'O')\",OTHERS,False\nmp-754647,\"{'Li': 3.0, 'Al': 3.0, 'V': 3.0, 'O': 12.0}\",\"('Al', 'Li', 'O', 'V')\",OTHERS,False\nmp-999068,\"{'Ti': 2.0, 'Al': 1.0, 'V': 1.0}\",\"('Al', 'Ti', 'V')\",OTHERS,False\nmp-1202245,\"{'Yb': 24.0, 'Sn': 16.0, 'Pd': 16.0}\",\"('Pd', 'Sn', 'Yb')\",OTHERS,False\nmp-8479,\"{'Si': 2.0, 'S': 8.0, 'Tl': 8.0}\",\"('S', 'Si', 'Tl')\",OTHERS,False\nmp-758188,\"{'Li': 8.0, 'Cr': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,False\nmp-980757,\"{'Sm': 10.0, 'Sb': 6.0}\",\"('Sb', 'Sm')\",OTHERS,False\nmp-12494,\"{'Cd': 2.0, 'Te': 6.0, 'Cs': 2.0, 'Pr': 2.0}\",\"('Cd', 'Cs', 'Pr', 'Te')\",OTHERS,False\nmp-1100865,\"{'Yb': 10.0, 'Ti': 6.0, 'O': 27.0}\",\"('O', 'Ti', 'Yb')\",OTHERS,False\nmp-1181630,\"{'Er': 34.0, 'Te': 6.0, 'Ru': 12.0}\",\"('Er', 'Ru', 'Te')\",OTHERS,False\nmp-695295,\"{'H': 22.0, 'Ru': 1.0, 'N': 7.0, 'Cl': 4.0, 'O': 8.0}\",\"('Cl', 'H', 'N', 'O', 'Ru')\",OTHERS,False\nmp-755975,\"{'Li': 2.0, 'Ti': 1.0, 'V': 3.0, 'O': 8.0}\",\"('Li', 'O', 'Ti', 'V')\",OTHERS,False\nmp-1187453,\"{'Ti': 2.0, 'Al': 1.0, 'Ni': 1.0}\",\"('Al', 'Ni', 'Ti')\",OTHERS,False\nmp-772995,\"{'Li': 7.0, 'Ti': 12.0, 'Fe': 5.0, 'O': 32.0}\",\"('Fe', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-763535,\"{'Li': 1.0, 'P': 5.0, 'W': 3.0, 'O': 19.0}\",\"('Li', 'O', 'P', 'W')\",OTHERS,False\nmp-1198459,\"{'Nd': 8.0, 'S': 12.0, 'O': 64.0}\",\"('Nd', 'O', 'S')\",OTHERS,False\nmp-764838,\"{'K': 8.0, 'Co': 4.0, 'P': 16.0, 'H': 40.0, 'O': 68.0}\",\"('Co', 'H', 'K', 'O', 'P')\",OTHERS,False\nmp-561166,\"{'Na': 4.0, 'Zr': 2.0, 'Ge': 4.0, 'O': 14.0}\",\"('Ge', 'Na', 'O', 'Zr')\",OTHERS,False\nmp-753835,\"{'Li': 4.0, 'Mn': 8.0, 'O': 12.0, 'F': 4.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1224716,\"{'Fe': 2.0, 'Co': 1.0, 'Se': 4.0}\",\"('Co', 'Fe', 'Se')\",OTHERS,False\nmp-1027135,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1247400,\"{'Sr': 2.0, 'Os': 14.0, 'N': 20.0}\",\"('N', 'Os', 'Sr')\",OTHERS,False\nmvc-11660,\"{'Ca': 1.0, 'Co': 4.0, 'O': 8.0}\",\"('Ca', 'Co', 'O')\",OTHERS,False\nmp-30021,\"{'K': 5.0, 'Sb': 4.0}\",\"('K', 'Sb')\",OTHERS,False\nmp-757214,\"{'Li': 3.0, 'Ti': 1.0, 'Co': 3.0, 'O': 8.0}\",\"('Co', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-1076683,\"{'Ba': 12.0, 'Sr': 20.0, 'Co': 16.0, 'Cu': 16.0, 'O': 80.0}\",\"('Ba', 'Co', 'Cu', 'O', 'Sr')\",OTHERS,False\nmvc-10594,\"{'Ca': 2.0, 'Cr': 6.0, 'P': 6.0, 'O': 26.0}\",\"('Ca', 'Cr', 'O', 'P')\",OTHERS,False\nmp-554160,\"{'K': 8.0, 'Cu': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Cu', 'K', 'O', 'P')\",OTHERS,False\nmp-1221439,\"{'Na': 4.0, 'Li': 5.0, 'W': 10.0, 'O': 30.0}\",\"('Li', 'Na', 'O', 'W')\",OTHERS,False\nmp-1177825,\"{'Li': 8.0, 'V': 12.0, 'W': 4.0, 'O': 32.0}\",\"('Li', 'O', 'V', 'W')\",OTHERS,False\nmp-1225817,\"{'Dy': 2.0, 'Fe': 4.0, 'Co': 4.0, 'B': 2.0}\",\"('B', 'Co', 'Dy', 'Fe')\",OTHERS,False\nmp-753274,\"{'Fe': 8.0, 'O': 8.0, 'F': 8.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-571584,\"{'Li': 1.0, 'Mg': 1.0, 'Sb': 1.0, 'Pt': 1.0}\",\"('Li', 'Mg', 'Pt', 'Sb')\",OTHERS,False\nmp-1106202,\"{'Ce': 4.0, 'Zn': 10.0, 'Sn': 2.0}\",\"('Ce', 'Sn', 'Zn')\",OTHERS,False\nmp-1218525,\"{'Sr': 3.0, 'La': 1.0, 'Ti': 2.0, 'Mn': 2.0, 'O': 12.0}\",\"('La', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1225692,\"{'Cu': 4.0, 'Br': 1.0, 'Cl': 3.0}\",\"('Br', 'Cl', 'Cu')\",OTHERS,False\nmp-581601,\"{'Zn': 12.0, 'S': 12.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-603128,\"{'O': 28.0, 'Fe': 8.0, 'Sr': 4.0, 'Eu': 8.0}\",\"('Eu', 'Fe', 'O', 'Sr')\",OTHERS,False\nmp-556103,\"{'Cs': 18.0, 'Ga': 12.0, 'F': 54.0}\",\"('Cs', 'F', 'Ga')\",OTHERS,False\nmp-1095382,\"{'Fe': 5.0, 'O': 7.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-23602,\"{'Ta': 4.0, 'Bi': 16.0, 'Cl': 4.0, 'O': 32.0}\",\"('Bi', 'Cl', 'O', 'Ta')\",OTHERS,False\nmp-865797,\"{'Lu': 1.0, 'Co': 2.0, 'Sn': 1.0}\",\"('Co', 'Lu', 'Sn')\",OTHERS,False\nmp-756834,\"{'Ho': 4.0, 'Cr': 4.0, 'O': 12.0}\",\"('Cr', 'Ho', 'O')\",OTHERS,False\nmp-1216633,\"{'U': 1.0, 'Ru': 2.0, 'Rh': 1.0}\",\"('Rh', 'Ru', 'U')\",OTHERS,False\nmp-1227870,\"{'Ce': 4.0, 'Zr': 2.0, 'Co': 32.0}\",\"('Ce', 'Co', 'Zr')\",OTHERS,False\nmp-1101492,\"{'Li': 2.0, 'V': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-977552,\"{'Be': 3.0, 'Tc': 1.0}\",\"('Be', 'Tc')\",OTHERS,False\nmp-1200581,\"{'Bi': 16.0, 'B': 24.0, 'H': 8.0, 'O': 64.0}\",\"('B', 'Bi', 'H', 'O')\",OTHERS,False\nmp-998610,\"{'Tl': 1.0, 'Ag': 1.0, 'Cl': 3.0}\",\"('Ag', 'Cl', 'Tl')\",OTHERS,False\nmp-754833,\"{'Hf': 8.0, 'N': 8.0, 'O': 4.0}\",\"('Hf', 'N', 'O')\",OTHERS,False\nmp-1027286,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1228939,\"{'Al': 6.0, 'N': 2.0, 'O': 6.0}\",\"('Al', 'N', 'O')\",OTHERS,False\nmp-761589,\"{'Nb': 2.0, 'Co': 6.0, 'O': 16.0}\",\"('Co', 'Nb', 'O')\",OTHERS,False\nmp-567891,\"{'Nd': 1.0, 'Ag': 2.0}\",\"('Ag', 'Nd')\",OTHERS,False\nmp-17383,\"{'Ni': 8.0, 'Ge': 4.0}\",\"('Ge', 'Ni')\",OTHERS,False\nmp-541636,\"{'Er': 4.0, 'P': 16.0, 'K': 4.0, 'O': 48.0}\",\"('Er', 'K', 'O', 'P')\",OTHERS,False\nmp-1238486,\"{'Mn': 2.0, 'H': 6.0, 'C': 10.0, 'N': 2.0, 'O': 12.0}\",\"('C', 'H', 'Mn', 'N', 'O')\",OTHERS,False\nmp-1192886,\"{'Ni': 6.0, 'N': 6.0, 'F': 18.0}\",\"('F', 'N', 'Ni')\",OTHERS,False\nmp-674420,\"{'Li': 8.0, 'Ni': 4.0, 'O': 12.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmp-9630,\"{'S': 2.0, 'Cr': 1.0, 'Tl': 1.0}\",\"('Cr', 'S', 'Tl')\",OTHERS,False\nmp-865519,\"{'Y': 1.0, 'Ta': 1.0, 'Ru': 2.0}\",\"('Ru', 'Ta', 'Y')\",OTHERS,False\nmp-1245297,\"{'B': 50.0, 'N': 50.0}\",\"('B', 'N')\",OTHERS,False\nmp-21677,\"{'Ca': 6.0, 'Ni': 16.0, 'In': 8.0}\",\"('Ca', 'In', 'Ni')\",OTHERS,False\nmp-753593,\"{'Ti': 10.0, 'O': 13.0}\",\"('O', 'Ti')\",OTHERS,False\nmp-1244998,\"{'Ga': 50.0, 'N': 50.0}\",\"('Ga', 'N')\",OTHERS,False\nmp-771945,\"{'Sn': 1.0, 'P': 6.0, 'W': 3.0, 'O': 24.0}\",\"('O', 'P', 'Sn', 'W')\",OTHERS,False\nmp-761141,\"{'Li': 11.0, 'V': 12.0, 'Co': 4.0, 'O': 32.0}\",\"('Co', 'Li', 'O', 'V')\",OTHERS,False\nmp-559369,\"{'Zr': 4.0, 'H': 24.0, 'N': 20.0, 'O': 70.0}\",\"('H', 'N', 'O', 'Zr')\",OTHERS,False\nmp-3629,\"{'O': 48.0, 'Y': 8.0, 'W': 12.0}\",\"('O', 'W', 'Y')\",OTHERS,False\nmp-1095424,\"{'Pr': 4.0, 'Mn': 2.0, 'As': 5.0}\",\"('As', 'Mn', 'Pr')\",OTHERS,False\nmp-559676,\"{'Sn': 2.0, 'S': 2.0}\",\"('S', 'Sn')\",OTHERS,False\nmp-862618,\"{'Li': 1.0, 'Er': 1.0, 'Hg': 2.0}\",\"('Er', 'Hg', 'Li')\",OTHERS,False\nmp-1206490,\"{'Nb': 4.0, 'B': 4.0, 'Mo': 2.0}\",\"('B', 'Mo', 'Nb')\",OTHERS,False\nmp-865877,\"{'Ti': 2.0, 'Re': 1.0, 'Pt': 1.0}\",\"('Pt', 'Re', 'Ti')\",OTHERS,False\nmp-1182555,\"{'Cd': 4.0, 'C': 28.0, 'S': 12.0, 'N': 16.0}\",\"('C', 'Cd', 'N', 'S')\",OTHERS,False\nmvc-1239,\"{'Zn': 4.0, 'Ni': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Ni', 'O', 'P', 'Zn')\",OTHERS,False\nmp-13654,\"{'Y': 6.0, 'Sb': 8.0, 'Au': 6.0}\",\"('Au', 'Sb', 'Y')\",OTHERS,False\nmp-1209357,\"{'Rb': 3.0, 'Y': 1.0, 'P': 2.0, 'O': 8.0}\",\"('O', 'P', 'Rb', 'Y')\",OTHERS,False\nmp-1186269,\"{'Nd': 3.0, 'Hf': 1.0}\",\"('Hf', 'Nd')\",OTHERS,False\nmp-1183324,\"{'Ba': 1.0, 'Sr': 3.0}\",\"('Ba', 'Sr')\",OTHERS,False\nmp-1222962,\"{'La': 1.0, 'Nd': 3.0, 'Mn': 4.0, 'O': 12.0}\",\"('La', 'Mn', 'Nd', 'O')\",OTHERS,False\nmp-1179999,\"{'Pb': 20.0, 'S': 2.0, 'O': 26.0, 'F': 4.0}\",\"('F', 'O', 'Pb', 'S')\",OTHERS,False\nmp-1177365,\"{'Li': 4.0, 'Nb': 3.0, 'Ni': 3.0, 'Te': 2.0, 'O': 16.0}\",\"('Li', 'Nb', 'Ni', 'O', 'Te')\",OTHERS,False\nmp-1224422,\"{'Hf': 6.0, 'Ga': 6.0, 'Pd': 4.0, 'Pt': 2.0}\",\"('Ga', 'Hf', 'Pd', 'Pt')\",OTHERS,False\nmp-755487,\"{'Li': 4.0, 'Bi': 2.0, 'O': 6.0}\",\"('Bi', 'Li', 'O')\",OTHERS,False\nmp-1200162,\"{'C': 164.0, 'F': 56.0}\",\"('C', 'F')\",OTHERS,False\nmp-1207159,\"{'Cs': 3.0, 'Eu': 1.0, 'F': 6.0}\",\"('Cs', 'Eu', 'F')\",OTHERS,False\nmp-1206697,\"{'Eu': 1.0, 'Ni': 1.0, 'P': 1.0}\",\"('Eu', 'Ni', 'P')\",OTHERS,False\nmp-1197353,\"{'Ba': 8.0, 'Li': 2.0, 'Ga': 10.0, 'Se': 24.0}\",\"('Ba', 'Ga', 'Li', 'Se')\",OTHERS,False\nmp-1191101,\"{'K': 4.0, 'Mg': 4.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'K', 'Mg', 'O')\",OTHERS,False\nmp-759946,\"{'Sc': 16.0, 'O': 15.0}\",\"('O', 'Sc')\",OTHERS,False\nmp-11500,\"{'Mn': 1.0, 'Ni': 1.0}\",\"('Mn', 'Ni')\",OTHERS,False\nmp-752802,\"{'Fe': 5.0, 'O': 4.0, 'F': 8.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1101055,\"{'Ta': 2.0, 'In': 2.0, 'S': 4.0}\",\"('In', 'S', 'Ta')\",OTHERS,False\nmp-721246,\"{'Sr': 12.0, 'Co': 2.0, 'C': 4.0, 'N': 14.0}\",\"('C', 'Co', 'N', 'Sr')\",OTHERS,False\nmp-989525,\"{'Cs': 2.0, 'Rb': 1.0, 'Pb': 1.0, 'F': 6.0}\",\"('Cs', 'F', 'Pb', 'Rb')\",OTHERS,False\nmp-696633,\"{'Ca': 10.0, 'Ta': 1.0, 'Ti': 8.0, 'Al': 1.0, 'Si': 10.0, 'O': 50.0}\",\"('Al', 'Ca', 'O', 'Si', 'Ta', 'Ti')\",OTHERS,False\nmp-775969,\"{'V': 3.0, 'Cr': 3.0, 'W': 2.0, 'O': 16.0}\",\"('Cr', 'O', 'V', 'W')\",OTHERS,False\nmp-5752,\"{'Si': 2.0, 'Tb': 1.0, 'Ir': 2.0}\",\"('Ir', 'Si', 'Tb')\",OTHERS,False\nmp-1208504,\"{'Tb': 3.0, 'Fe': 2.0, 'Si': 7.0}\",\"('Fe', 'Si', 'Tb')\",OTHERS,False\nmp-1223852,\"{'In': 1.0, 'Ga': 1.0, 'Ag': 2.0, 'S': 4.0}\",\"('Ag', 'Ga', 'In', 'S')\",OTHERS,False\nmp-1201586,\"{'Zr': 4.0, 'P': 8.0, 'O': 32.0}\",\"('O', 'P', 'Zr')\",OTHERS,False\nmp-12846,\"{'Ga': 4.0, 'Ge': 4.0, 'Yb': 4.0}\",\"('Ga', 'Ge', 'Yb')\",OTHERS,False\nmp-864800,\"{'Yb': 2.0, 'Pd': 1.0, 'Au': 1.0}\",\"('Au', 'Pd', 'Yb')\",OTHERS,False\nmp-1247225,\"{'Mg': 16.0, 'Ge': 4.0, 'N': 16.0}\",\"('Ge', 'Mg', 'N')\",OTHERS,False\nmp-761137,\"{'Li': 10.0, 'Ti': 3.0, 'Mn': 5.0, 'O': 16.0}\",\"('Li', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-1027091,\"{'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-780936,\"{'Li': 5.0, 'V': 6.0, 'O': 5.0, 'F': 19.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-1075363,\"{'Mg': 10.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-754998,\"{'Ce': 2.0, 'Se': 1.0, 'O': 2.0}\",\"('Ce', 'O', 'Se')\",OTHERS,False\nmp-743613,\"{'K': 1.0, 'Mn': 1.0, 'H': 5.0, 'S': 2.0, 'O': 10.0}\",\"('H', 'K', 'Mn', 'O', 'S')\",OTHERS,False\nmp-1202713,\"{'Ir': 8.0, 'Cl': 8.0, 'O': 8.0, 'F': 48.0}\",\"('Cl', 'F', 'Ir', 'O')\",OTHERS,False\nmp-22512,\"{'Sr': 4.0, 'In': 4.0, 'O': 10.0}\",\"('In', 'O', 'Sr')\",OTHERS,False\nmp-1210571,\"{'Na': 4.0, 'Cd': 6.0, 'P': 8.0, 'N': 2.0, 'Cl': 2.0, 'O': 28.0}\",\"('Cd', 'Cl', 'N', 'Na', 'O', 'P')\",OTHERS,False\nmp-676104,\"{'Tm': 4.0, 'Cu': 2.0, 'O': 8.0}\",\"('Cu', 'O', 'Tm')\",OTHERS,False\nmp-1207090,\"{'Cu': 1.0, 'Sn': 1.0, 'Pd': 2.0}\",\"('Cu', 'Pd', 'Sn')\",OTHERS,False\nmp-1211794,\"{'K': 2.0, 'Na': 1.0, 'O': 2.0}\",\"('K', 'Na', 'O')\",OTHERS,False\nmp-542121,\"{'Rb': 4.0, 'Nb': 2.0, 'Si': 8.0, 'O': 23.0}\",\"('Nb', 'O', 'Rb', 'Si')\",OTHERS,False\nmp-1214990,\"{'Ba': 4.0, 'C': 8.0, 'O': 24.0}\",\"('Ba', 'C', 'O')\",OTHERS,False\nmp-24333,\"{'H': 24.0, 'O': 12.0, 'Cl': 6.0, 'U': 2.0}\",\"('Cl', 'H', 'O', 'U')\",OTHERS,False\nmp-1102232,\"{'H': 4.0, 'C': 4.0, 'N': 4.0}\",\"('C', 'H', 'N')\",OTHERS,False\nmp-1215852,\"{'Yb': 1.0, 'Eu': 1.0, 'Si': 4.0, 'Au': 4.0}\",\"('Au', 'Eu', 'Si', 'Yb')\",OTHERS,False\nmp-1201518,\"{'K': 6.0, 'Fe': 10.0, 'F': 30.0}\",\"('F', 'Fe', 'K')\",OTHERS,False\nmp-1193079,\"{'Nd': 4.0, 'Cu': 24.0}\",\"('Cu', 'Nd')\",OTHERS,False\nmp-1177831,\"{'Li': 4.0, 'V': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-16855,\"{'O': 26.0, 'Si': 4.0, 'K': 6.0, 'Ta': 6.0}\",\"('K', 'O', 'Si', 'Ta')\",OTHERS,False\nmp-774356,\"{'Li': 6.0, 'Mn': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1095397,\"{'Sn': 4.0, 'S': 8.0}\",\"('S', 'Sn')\",OTHERS,False\nmp-560925,\"{'Na': 10.0, 'Fe': 6.0, 'F': 28.0}\",\"('F', 'Fe', 'Na')\",OTHERS,False\nmp-1215427,\"{'Zn': 1.0, 'Cd': 1.0, 'Se': 2.0}\",\"('Cd', 'Se', 'Zn')\",OTHERS,False\nmp-19864,\"{'O': 12.0, 'Ca': 4.0, 'Fe': 2.0, 'W': 2.0}\",\"('Ca', 'Fe', 'O', 'W')\",OTHERS,False\nmp-766206,\"{'Sr': 1.0, 'Li': 4.0, 'La': 15.0, 'Co': 4.0, 'O': 32.0}\",\"('Co', 'La', 'Li', 'O', 'Sr')\",OTHERS,False\nmp-1101173,\"{'W': 2.0, 'N': 4.0}\",\"('N', 'W')\",OTHERS,False\nmp-644369,\"{'Ba': 2.0, 'Bi': 2.0, 'O': 6.0}\",\"('Ba', 'Bi', 'O')\",OTHERS,False\nmp-1201230,\"{'Bi': 4.0, 'Pb': 12.0, 'S': 18.0}\",\"('Bi', 'Pb', 'S')\",OTHERS,False\nmp-1190421,\"{'Cs': 2.0, 'Dy': 4.0, 'Ag': 6.0, 'Te': 10.0}\",\"('Ag', 'Cs', 'Dy', 'Te')\",OTHERS,False\nmp-1174284,\"{'Li': 6.0, 'Mn': 2.0, 'Co': 2.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-9575,\"{'Li': 2.0, 'Be': 2.0, 'Sb': 2.0}\",\"('Be', 'Li', 'Sb')\",OTHERS,False\nmp-22317,\"{'Ga': 4.0, 'Eu': 2.0}\",\"('Eu', 'Ga')\",OTHERS,False\nmp-1223853,\"{'K': 2.0, 'Zr': 1.0, 'P': 2.0, 'O': 8.0}\",\"('K', 'O', 'P', 'Zr')\",OTHERS,False\nmp-1232235,\"{'Pm': 1.0, 'S': 1.0}\",\"('Pm', 'S')\",OTHERS,False\nmp-530036,\"{'Tb': 22.0, 'S': 32.0}\",\"('S', 'Tb')\",OTHERS,False\nmp-1184742,\"{'Gd': 1.0, 'Zr': 1.0, 'Ru': 2.0}\",\"('Gd', 'Ru', 'Zr')\",OTHERS,False\nmp-1056027,{'K': 1.0},\"('K',)\",OTHERS,False\nmp-541971,\"{'Tm': 2.0, 'Ni': 12.0, 'P': 7.0}\",\"('Ni', 'P', 'Tm')\",OTHERS,False\nmp-30622,\"{'Ru': 4.0, 'Dy': 10.0}\",\"('Dy', 'Ru')\",OTHERS,False\nmp-558122,\"{'Gd': 4.0, 'S': 4.0, 'Cl': 4.0, 'O': 16.0}\",\"('Cl', 'Gd', 'O', 'S')\",OTHERS,False\nmp-640922,\"{'Ce': 3.0, 'In': 3.0, 'Pt': 3.0}\",\"('Ce', 'In', 'Pt')\",OTHERS,False\nmp-867315,\"{'Ca': 1.0, 'Gd': 1.0, 'Hg': 2.0}\",\"('Ca', 'Gd', 'Hg')\",OTHERS,False\nmp-12574,\"{'C': 1.0, 'Dy': 2.0}\",\"('C', 'Dy')\",OTHERS,False\nmp-758011,\"{'Li': 4.0, 'Fe': 8.0, 'Si': 8.0, 'O': 26.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-685153,\"{'Fe': 64.0, 'O': 96.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-1201969,\"{'Ce': 2.0, 'N': 16.0, 'O': 36.0}\",\"('Ce', 'N', 'O')\",OTHERS,False\nmp-30334,\"{'Al': 14.0, 'Th': 4.0}\",\"('Al', 'Th')\",OTHERS,False\nmp-505148,\"{'Th': 2.0, 'Pb': 2.0, 'I': 12.0}\",\"('I', 'Pb', 'Th')\",OTHERS,False\nmp-686004,\"{'Li': 12.0, 'Sc': 4.0, 'Cl': 24.0}\",\"('Cl', 'Li', 'Sc')\",OTHERS,False\nmp-30675,\"{'Ga': 8.0, 'Ti': 10.0}\",\"('Ga', 'Ti')\",OTHERS,False\nmp-1208788,\"{'Sr': 6.0, 'Ti': 2.0, 'Si': 8.0, 'H': 4.0, 'O': 26.0}\",\"('H', 'O', 'Si', 'Sr', 'Ti')\",OTHERS,False\nmp-677127,\"{'Y': 1.0, 'Al': 6.0, 'Si': 18.0, 'N': 30.0, 'O': 2.0}\",\"('Al', 'N', 'O', 'Si', 'Y')\",OTHERS,False\nmp-557824,\"{'Rb': 8.0, 'Re': 12.0, 'S': 24.0}\",\"('Rb', 'Re', 'S')\",OTHERS,False\nmp-581276,\"{'Cu': 4.0, 'Te': 4.0, 'Cl': 4.0, 'O': 10.0}\",\"('Cl', 'Cu', 'O', 'Te')\",OTHERS,False\nmp-1212761,\"{'Gd': 1.0, 'Fe': 4.0, 'P': 12.0}\",\"('Fe', 'Gd', 'P')\",OTHERS,False\nmp-1105942,\"{'Sm': 10.0, 'Ga': 6.0}\",\"('Ga', 'Sm')\",OTHERS,False\nmp-1219003,\"{'Sn': 8.0, 'Se': 4.0, 'S': 8.0}\",\"('S', 'Se', 'Sn')\",OTHERS,False\nmp-1226283,\"{'Cr': 1.0, 'W': 1.0, 'O': 3.0}\",\"('Cr', 'O', 'W')\",OTHERS,False\nmvc-9917,\"{'Mg': 6.0, 'Fe': 12.0, 'O': 24.0}\",\"('Fe', 'Mg', 'O')\",OTHERS,False\nmp-976254,\"{'Li': 3.0, 'Mg': 1.0}\",\"('Li', 'Mg')\",OTHERS,False\nmp-1185144,\"{'K': 2.0, 'Th': 6.0}\",\"('K', 'Th')\",OTHERS,False\nmp-1208894,\"{'Sm': 4.0, 'Si': 10.0, 'Pd': 6.0}\",\"('Pd', 'Si', 'Sm')\",OTHERS,False\nmp-559162,\"{'Si': 4.0, 'B': 44.0, 'H': 40.0, 'C': 16.0, 'F': 44.0}\",\"('B', 'C', 'F', 'H', 'Si')\",OTHERS,False\nmp-777342,\"{'V': 8.0, 'O': 6.0, 'F': 18.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-972205,\"{'V': 2.0, 'Mo': 1.0, 'Os': 1.0}\",\"('Mo', 'Os', 'V')\",OTHERS,False\nmp-1205601,\"{'Yb': 4.0, 'Sn': 2.0, 'Pd': 4.0}\",\"('Pd', 'Sn', 'Yb')\",OTHERS,False\nmp-510400,\"{'Gd': 1.0, 'Ir': 3.0}\",\"('Gd', 'Ir')\",OTHERS,False\nmp-765840,\"{'Li': 4.0, 'V': 3.0, 'Co': 1.0, 'P': 4.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1228163,\"{'Ca': 1.0, 'Mn': 1.0, 'Zn': 1.0, 'As': 2.0, 'H': 3.0, 'O': 10.0}\",\"('As', 'Ca', 'H', 'Mn', 'O', 'Zn')\",OTHERS,False\nmp-759878,\"{'Rb': 2.0, 'Mg': 2.0, 'H': 24.0, 'Cl': 6.0, 'O': 12.0}\",\"('Cl', 'H', 'Mg', 'O', 'Rb')\",OTHERS,False\nmp-753083,\"{'Li': 3.0, 'Fe': 4.0, 'O': 8.0}\",\"('Fe', 'Li', 'O')\",OTHERS,False\nmp-1195598,\"{'Ba': 2.0, 'Er': 8.0, 'Si': 10.0, 'O': 34.0}\",\"('Ba', 'Er', 'O', 'Si')\",OTHERS,False\nmp-1177942,\"{'Li': 4.0, 'Hf': 4.0, 'O': 10.0}\",\"('Hf', 'Li', 'O')\",OTHERS,False\nmp-1095822,\"{'Zr': 2.0, 'Pt': 1.0, 'Rh': 1.0}\",\"('Pt', 'Rh', 'Zr')\",OTHERS,False\nmp-1199886,\"{'Sn': 4.0, 'Mo': 30.0, 'Se': 38.0}\",\"('Mo', 'Se', 'Sn')\",OTHERS,False\nmp-1072085,\"{'Ce': 1.0, 'Si': 5.0}\",\"('Ce', 'Si')\",OTHERS,False\nmp-6080,\"{'S': 10.0, 'Co': 2.0, 'Ba': 2.0, 'Nd': 4.0}\",\"('Ba', 'Co', 'Nd', 'S')\",OTHERS,False\nmp-567197,\"{'Y': 2.0, 'Sn': 2.0, 'Au': 2.0}\",\"('Au', 'Sn', 'Y')\",OTHERS,False\nmp-1104194,\"{'Ca': 1.0, 'Mo': 6.0, 'S': 8.0}\",\"('Ca', 'Mo', 'S')\",OTHERS,False\nmp-540391,\"{'O': 16.0, 'P': 4.0, 'Co': 4.0}\",\"('Co', 'O', 'P')\",OTHERS,False\nmp-1229080,\"{'Ce': 5.0, 'Cu': 19.0, 'P': 12.0}\",\"('Ce', 'Cu', 'P')\",OTHERS,False\nmp-1020638,\"{'Na': 8.0, 'P': 1.0, 'O': 3.0}\",\"('Na', 'O', 'P')\",OTHERS,False\nmp-542327,\"{'Ce': 5.0, 'Co': 19.0}\",\"('Ce', 'Co')\",OTHERS,False\nmp-1178789,\"{'V': 2.0, 'Zn': 1.0, 'O': 6.0}\",\"('O', 'V', 'Zn')\",OTHERS,False\nmp-614951,\"{'Rb': 9.0, 'N': 9.0, 'O': 27.0}\",\"('N', 'O', 'Rb')\",OTHERS,False\nmp-1247652,\"{'Ca': 32.0, 'Mn': 24.0, 'Cr': 8.0, 'O': 84.0}\",\"('Ca', 'Cr', 'Mn', 'O')\",OTHERS,False\nmp-614502,{'Gd': 1.0},\"('Gd',)\",OTHERS,False\nmp-557785,\"{'Mn': 2.0, 'H': 42.0, 'C': 14.0, 'S': 6.0, 'N': 2.0}\",\"('C', 'H', 'Mn', 'N', 'S')\",OTHERS,False\nmp-973633,\"{'Lu': 2.0, 'Si': 4.0, 'Ni': 2.0}\",\"('Lu', 'Ni', 'Si')\",OTHERS,False\nmp-1388,\"{'Rh': 4.0, 'Dy': 2.0}\",\"('Dy', 'Rh')\",OTHERS,False\nmp-9580,\"{'Ga': 2.0, 'Se': 4.0, 'Tl': 2.0}\",\"('Ga', 'Se', 'Tl')\",OTHERS,False\nmp-562517,\"{'Ca': 2.0, 'Mg': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Ca', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-982558,\"{'Ho': 1.0, 'Ge': 1.0, 'O': 3.0}\",\"('Ge', 'Ho', 'O')\",OTHERS,False\nmp-1218474,\"{'Sr': 3.0, 'Fe': 2.0, 'Ru': 1.0, 'O': 9.0}\",\"('Fe', 'O', 'Ru', 'Sr')\",OTHERS,False\nmp-1247135,\"{'Si': 14.0, 'Ge': 2.0, 'N': 20.0}\",\"('Ge', 'N', 'Si')\",OTHERS,False\nmp-30922,\"{'Co': 1.0, 'Ho': 6.0, 'Bi': 2.0}\",\"('Bi', 'Co', 'Ho')\",OTHERS,False\nmp-18562,\"{'Na': 8.0, 'Si': 8.0, 'Se': 20.0}\",\"('Na', 'Se', 'Si')\",OTHERS,False\nmvc-15567,\"{'Mg': 4.0, 'Fe': 4.0, 'O': 8.0}\",\"('Fe', 'Mg', 'O')\",OTHERS,False\nmp-1016146,\"{'Mg': 4.0, 'Mn': 16.0, 'O': 32.0}\",\"('Mg', 'Mn', 'O')\",OTHERS,False\nmp-571222,\"{'Cs': 1.0, 'Br': 1.0}\",\"('Br', 'Cs')\",OTHERS,False\nmp-510494,\"{'La': 10.0, 'Sn': 6.0}\",\"('La', 'Sn')\",OTHERS,False\nmp-998428,\"{'Cs': 4.0, 'Ca': 4.0, 'I': 12.0}\",\"('Ca', 'Cs', 'I')\",OTHERS,False\nmp-698214,\"{'K': 1.0, 'Mn': 1.0, 'H': 24.0, 'C': 14.0, 'N': 8.0}\",\"('C', 'H', 'K', 'Mn', 'N')\",OTHERS,False\nmvc-11373,\"{'Ca': 2.0, 'Mn': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Ca', 'Mn', 'O', 'W')\",OTHERS,False\nmp-1223474,\"{'K': 2.0, 'H': 2.0, 'C': 2.0, 'O': 6.0}\",\"('C', 'H', 'K', 'O')\",OTHERS,False\nmp-1199576,\"{'U': 12.0, 'Ag': 8.0, 'Ge': 8.0, 'O': 64.0}\",\"('Ag', 'Ge', 'O', 'U')\",OTHERS,False\nmp-1186222,\"{'Nb': 1.0, 'Ga': 1.0, 'Os': 2.0}\",\"('Ga', 'Nb', 'Os')\",OTHERS,False\nmvc-3251,\"{'Zn': 2.0, 'Cr': 2.0, 'P': 2.0, 'O': 10.0}\",\"('Cr', 'O', 'P', 'Zn')\",OTHERS,False\nmp-1039906,\"{'Sr': 1.0, 'Mg': 30.0, 'Si': 1.0, 'O': 32.0}\",\"('Mg', 'O', 'Si', 'Sr')\",OTHERS,False\nmp-705842,\"{'Fe': 9.0, 'Cu': 3.0, 'O': 16.0}\",\"('Cu', 'Fe', 'O')\",OTHERS,False\nmp-1068732,\"{'Th': 1.0, 'Si': 3.0, 'Ru': 1.0}\",\"('Ru', 'Si', 'Th')\",OTHERS,False\nmp-649616,\"{'Pd': 4.0, 'Xe': 8.0, 'F': 64.0}\",\"('F', 'Pd', 'Xe')\",OTHERS,False\nmp-532701,\"{'In': 2.0, 'Mg': 6.0, 'Na': 6.0, 'O': 48.0, 'S': 12.0}\",\"('In', 'Mg', 'Na', 'O', 'S')\",OTHERS,False\nmp-559328,\"{'Fe': 4.0, 'H': 16.0, 'C': 12.0, 'O': 20.0}\",\"('C', 'Fe', 'H', 'O')\",OTHERS,False\nmp-1097636,\"{'Ti': 1.0, 'Zn': 2.0, 'Pt': 1.0}\",\"('Pt', 'Ti', 'Zn')\",OTHERS,False\nmvc-3773,\"{'Y': 6.0, 'Ni': 6.0, 'O': 18.0}\",\"('Ni', 'O', 'Y')\",OTHERS,False\nmp-758950,\"{'V': 4.0, 'O': 5.0, 'F': 7.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-677288,\"{'Mg': 5.0, 'Al': 1.0, 'H': 21.0, 'O': 17.0}\",\"('Al', 'H', 'Mg', 'O')\",OTHERS,False\nmp-1183610,\"{'Ca': 2.0, 'Sm': 6.0}\",\"('Ca', 'Sm')\",OTHERS,False\nmp-976596,\"{'Li': 1.0, 'Lu': 2.0, 'Ga': 1.0}\",\"('Ga', 'Li', 'Lu')\",OTHERS,False\nmp-775441,\"{'Li': 4.0, 'V': 3.0, 'Fe': 3.0, 'Sb': 2.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Sb', 'V')\",OTHERS,False\nmvc-12661,\"{'Zn': 4.0, 'Fe': 8.0, 'O': 16.0}\",\"('Fe', 'O', 'Zn')\",OTHERS,False\nmp-1228165,\"{'Al': 5.0, 'Se': 8.0}\",\"('Al', 'Se')\",OTHERS,False\nmp-1032984,\"{'Ca': 1.0, 'Mg': 6.0, 'Ni': 1.0, 'O': 8.0}\",\"('Ca', 'Mg', 'Ni', 'O')\",OTHERS,False\nmp-532676,\"{'Al': 6.0, 'Li': 2.0, 'Mg': 2.0, 'O': 48.0, 'Se': 12.0}\",\"('Al', 'Li', 'Mg', 'O', 'Se')\",OTHERS,False\nmp-1210779,\"{'Mo': 2.0, 'C': 8.0, 'O': 8.0, 'F': 12.0}\",\"('C', 'F', 'Mo', 'O')\",OTHERS,False\nmp-1193682,\"{'Mo': 4.0, 'S': 16.0, 'N': 8.0}\",\"('Mo', 'N', 'S')\",OTHERS,False\nmp-559427,\"{'Ba': 2.0, 'Sr': 8.0, 'U': 6.0, 'O': 28.0}\",\"('Ba', 'O', 'Sr', 'U')\",OTHERS,False\nmp-774931,\"{'Li': 2.0, 'La': 28.0, 'Cu': 12.0, 'O': 56.0}\",\"('Cu', 'La', 'Li', 'O')\",OTHERS,False\nmp-677056,\"{'Na': 6.0, 'U': 3.0, 'I': 18.0}\",\"('I', 'Na', 'U')\",OTHERS,False\nmp-559091,\"{'Si': 4.0, 'O': 8.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1226939,\"{'Cd': 2.0, 'Te': 1.0, 'Se': 1.0}\",\"('Cd', 'Se', 'Te')\",OTHERS,False\nmp-849316,\"{'Co': 6.0, 'O': 2.0, 'F': 10.0}\",\"('Co', 'F', 'O')\",OTHERS,False\nmp-765543,\"{'Sr': 3.0, 'Rh': 16.0, 'O': 32.0}\",\"('O', 'Rh', 'Sr')\",OTHERS,False\nmp-772890,\"{'Np': 4.0, 'Se': 8.0, 'O': 24.0}\",\"('Np', 'O', 'Se')\",OTHERS,False\nmp-775275,\"{'Mn': 3.0, 'Sb': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Mn', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1185726,\"{'Mg': 16.0, 'Sc': 1.0, 'Al': 12.0}\",\"('Al', 'Mg', 'Sc')\",OTHERS,False\nmp-863365,\"{'Li': 4.0, 'Sn': 2.0, 'P': 8.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-28611,\"{'O': 14.0, 'Ta': 4.0, 'Th': 2.0}\",\"('O', 'Ta', 'Th')\",OTHERS,False\nmp-1212398,\"{'Li': 8.0, 'Eu': 20.0, 'Sn': 28.0}\",\"('Eu', 'Li', 'Sn')\",OTHERS,False\nmp-1199190,\"{'Ba': 12.0, 'Bi': 3.0, 'Ir': 9.0, 'O': 36.0}\",\"('Ba', 'Bi', 'Ir', 'O')\",OTHERS,False\nmp-1071163,\"{'Ti': 3.0, 'O': 3.0}\",\"('O', 'Ti')\",OTHERS,False\nmp-1079725,\"{'Er': 6.0, 'Co': 1.0, 'Te': 2.0}\",\"('Co', 'Er', 'Te')\",OTHERS,False\nmp-21109,\"{'La': 3.0, 'Al': 12.0}\",\"('Al', 'La')\",OTHERS,False\nmp-1202524,\"{'K': 4.0, 'Cu': 2.0, 'H': 28.0, 'C': 8.0, 'N': 12.0, 'O': 16.0}\",\"('C', 'Cu', 'H', 'K', 'N', 'O')\",OTHERS,False\nmp-867863,\"{'Sm': 1.0, 'Cu': 4.0, 'Ag': 1.0}\",\"('Ag', 'Cu', 'Sm')\",OTHERS,False\nmp-1001612,\"{'Lu': 2.0, 'Si': 2.0}\",\"('Lu', 'Si')\",OTHERS,False\nmp-559235,\"{'B': 2.0, 'H': 22.0, 'C': 8.0, 'N': 2.0, 'Cl': 2.0, 'F': 8.0}\",\"('B', 'C', 'Cl', 'F', 'H', 'N')\",OTHERS,False\nmp-768605,\"{'Ho': 8.0, 'Ti': 4.0, 'O': 20.0}\",\"('Ho', 'O', 'Ti')\",OTHERS,False\nmp-6977,\"{'Be': 6.0, 'N': 4.0}\",\"('Be', 'N')\",OTHERS,False\nmp-755442,\"{'Mn': 4.0, 'Co': 1.0, 'O': 8.0}\",\"('Co', 'Mn', 'O')\",OTHERS,False\nmp-1215570,\"{'Zr': 3.0, 'Sn': 4.0, 'Sb': 2.0}\",\"('Sb', 'Sn', 'Zr')\",OTHERS,False\nmp-1177309,\"{'Li': 8.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-772840,\"{'Sm': 8.0, 'Ge': 8.0, 'O': 28.0}\",\"('Ge', 'O', 'Sm')\",OTHERS,False\nmp-5709,\"{'O': 8.0, 'P': 2.0, 'Tl': 6.0}\",\"('O', 'P', 'Tl')\",OTHERS,False\nmp-1232230,\"{'Eu': 2.0, 'Se': 4.0}\",\"('Eu', 'Se')\",OTHERS,False\nmp-705895,\"{'Ba': 2.0, 'Nb': 4.0, 'Fe': 4.0, 'P': 12.0, 'O': 48.0}\",\"('Ba', 'Fe', 'Nb', 'O', 'P')\",OTHERS,False\nmp-619575,\"{'Cl': 8.0, 'F': 24.0}\",\"('Cl', 'F')\",OTHERS,False\nmp-697144,\"{'Rb': 2.0, 'H': 4.0, 'N': 2.0}\",\"('H', 'N', 'Rb')\",OTHERS,False\nmp-1223497,\"{'La': 2.0, 'Ge': 4.0, 'Pd': 3.0, 'Pt': 1.0}\",\"('Ge', 'La', 'Pd', 'Pt')\",OTHERS,False\nmp-1222541,\"{'Li': 4.0, 'Fe': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1076543,\"{'Ca': 7.0, 'Mg': 1.0, 'Ti': 1.0, 'Mn': 7.0, 'O': 24.0}\",\"('Ca', 'Mg', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-20989,\"{'Ba': 1.0, 'Gd': 1.0, 'Fe': 2.0, 'O': 5.0}\",\"('Ba', 'Fe', 'Gd', 'O')\",OTHERS,False\nmp-862840,\"{'Pr': 11.0, 'In': 9.0, 'Ni': 4.0}\",\"('In', 'Ni', 'Pr')\",OTHERS,False\nmp-18343,\"{'O': 28.0, 'Mg': 4.0, 'P': 8.0, 'Ba': 4.0}\",\"('Ba', 'Mg', 'O', 'P')\",OTHERS,False\nmp-754365,\"{'Li': 4.0, 'Cr': 4.0, 'O': 14.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-1104364,\"{'Cd': 2.0, 'Br': 4.0, 'O': 8.0}\",\"('Br', 'Cd', 'O')\",OTHERS,False\nmp-1178324,\"{'Fe': 6.0, 'O': 2.0, 'F': 14.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-11102,\"{'Rh': 4.0, 'In': 4.0, 'Yb': 4.0}\",\"('In', 'Rh', 'Yb')\",OTHERS,False\nmp-1232260,\"{'Mg': 4.0, 'In': 8.0, 'S': 16.0}\",\"('In', 'Mg', 'S')\",OTHERS,False\nmp-1209414,\"{'Sm': 8.0, 'Mn': 2.0, 'S': 14.0}\",\"('Mn', 'S', 'Sm')\",OTHERS,False\nmp-510570,\"{'Ca': 1.0, 'Mn': 4.0, 'Cu': 3.0, 'O': 12.0}\",\"('Ca', 'Cu', 'Mn', 'O')\",OTHERS,False\nmp-1192361,\"{'Zn': 22.0, 'Co': 4.0}\",\"('Co', 'Zn')\",OTHERS,False\nmp-1200625,\"{'Ba': 2.0, 'Ti': 2.0, 'Mn': 4.0, 'Si': 4.0, 'O': 20.0}\",\"('Ba', 'Mn', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-1033061,\"{'Ba': 1.0, 'Mg': 6.0, 'Al': 1.0, 'O': 8.0}\",\"('Al', 'Ba', 'Mg', 'O')\",OTHERS,False\nmp-756259,\"{'Li': 4.0, 'Mn': 5.0, 'Nb': 1.0, 'O': 12.0}\",\"('Li', 'Mn', 'Nb', 'O')\",OTHERS,False\nmp-1187499,\"{'Ti': 1.0, 'Mn': 1.0, 'Ir': 2.0}\",\"('Ir', 'Mn', 'Ti')\",OTHERS,False\nmp-1176872,\"{'Li': 14.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1193772,\"{'Tl': 8.0, 'Cr': 4.0, 'O': 16.0}\",\"('Cr', 'O', 'Tl')\",OTHERS,False\nmp-1212777,\"{'K': 24.0, 'Ge': 48.0, 'O': 96.0}\",\"('Ge', 'K', 'O')\",OTHERS,False\nmp-17562,\"{'B': 6.0, 'O': 18.0, 'Sc': 2.0, 'Sr': 6.0}\",\"('B', 'O', 'Sc', 'Sr')\",OTHERS,False\nmp-1213601,\"{'Dy': 22.0, 'Ge': 36.0}\",\"('Dy', 'Ge')\",OTHERS,False\nmp-557611,\"{'Mn': 4.0, 'Si': 4.0, 'Pb': 4.0, 'O': 18.0}\",\"('Mn', 'O', 'Pb', 'Si')\",OTHERS,False\nmp-1038735,\"{'Cs': 1.0, 'Mg': 30.0, 'Bi': 1.0, 'O': 32.0}\",\"('Bi', 'Cs', 'Mg', 'O')\",OTHERS,False\nmp-1216009,\"{'Y': 2.0, 'Lu': 2.0, 'Ga': 12.0}\",\"('Ga', 'Lu', 'Y')\",OTHERS,False\nmp-10334,\"{'P': 6.0, 'Cd': 6.0, 'Pr': 2.0}\",\"('Cd', 'P', 'Pr')\",OTHERS,False\nmp-1179679,\"{'Rb': 2.0, 'P': 2.0}\",\"('P', 'Rb')\",OTHERS,False\nmp-1203086,\"{'Sr': 18.0, 'W': 6.0, 'O': 36.0}\",\"('O', 'Sr', 'W')\",OTHERS,False\nmp-559644,\"{'K': 8.0, 'Cu': 4.0, 'P': 12.0, 'S': 36.0}\",\"('Cu', 'K', 'P', 'S')\",OTHERS,False\nmp-648893,\"{'Na': 32.0, 'V': 16.0, 'O': 56.0}\",\"('Na', 'O', 'V')\",OTHERS,False\nmp-1214545,\"{'Ba': 10.0, 'As': 6.0, 'S': 2.0, 'O': 24.0}\",\"('As', 'Ba', 'O', 'S')\",OTHERS,False\nmp-1186437,\"{'Pd': 3.0, 'W': 1.0}\",\"('Pd', 'W')\",OTHERS,False\nmp-93,{'U': 30.0},\"('U',)\",OTHERS,False\nmp-759155,\"{'Li': 8.0, 'Fe': 8.0, 'C': 8.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1195788,\"{'K': 8.0, 'Mo': 8.0, 'Se': 8.0, 'O': 44.0}\",\"('K', 'Mo', 'O', 'Se')\",OTHERS,False\nmp-740930,\"{'La': 2.0, 'P': 6.0, 'H': 12.0, 'O': 12.0}\",\"('H', 'La', 'O', 'P')\",OTHERS,False\nmp-1195859,\"{'Na': 2.0, 'B': 2.0, 'H': 68.0, 'C': 24.0, 'N': 8.0}\",\"('B', 'C', 'H', 'N', 'Na')\",OTHERS,False\nmp-550745,\"{'O': 6.0, 'Fe': 1.0, 'Bi': 2.0, 'Ti': 1.0}\",\"('Bi', 'Fe', 'O', 'Ti')\",OTHERS,False\nmp-1200868,\"{'La': 8.0, 'P': 18.0, 'Rh': 16.0}\",\"('La', 'P', 'Rh')\",OTHERS,False\nmp-4856,\"{'Co': 1.0, 'Ga': 5.0, 'Ho': 1.0}\",\"('Co', 'Ga', 'Ho')\",OTHERS,False\nmp-1091398,\"{'Y': 3.0, 'Si': 3.0, 'Ag': 3.0}\",\"('Ag', 'Si', 'Y')\",OTHERS,False\nmp-775999,\"{'Li': 4.0, 'Ti': 3.0, 'Nb': 2.0, 'Fe': 3.0, 'O': 16.0}\",\"('Fe', 'Li', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-1246548,\"{'In': 1.0, 'Fe': 2.0, 'N': 2.0}\",\"('Fe', 'In', 'N')\",OTHERS,False\nmp-768082,\"{'Na': 10.0, 'Ni': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Na', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1195803,\"{'Na': 12.0, 'Nb': 12.0, 'O': 36.0}\",\"('Na', 'Nb', 'O')\",OTHERS,False\nmp-1106224,\"{'Mn': 4.0, 'V': 4.0, 'O': 12.0}\",\"('Mn', 'O', 'V')\",OTHERS,False\nmp-1212897,\"{'Er': 8.0, 'Si': 12.0, 'Pd': 4.0}\",\"('Er', 'Pd', 'Si')\",OTHERS,False\nmp-1026016,\"{'Te': 2.0, 'Mo': 2.0, 'W': 1.0, 'Se': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1036160,\"{'Sr': 1.0, 'Mg': 14.0, 'Mn': 1.0, 'O': 16.0}\",\"('Mg', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-676338,\"{'Mg': 2.0, 'In': 4.0, 'O': 8.0}\",\"('In', 'Mg', 'O')\",OTHERS,False\nmp-1180166,\"{'Na': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Na', 'O', 'P')\",OTHERS,False\nmp-754322,\"{'Sr': 2.0, 'Cu': 1.0, 'O': 4.0}\",\"('Cu', 'O', 'Sr')\",OTHERS,False\nmp-1211441,\"{'Nd': 46.0, 'Mg': 8.0, 'Ni': 14.0}\",\"('Mg', 'Nd', 'Ni')\",OTHERS,False\nmvc-4829,\"{'Zn': 2.0, 'Mo': 4.0, 'O': 8.0}\",\"('Mo', 'O', 'Zn')\",OTHERS,False\nmp-639789,\"{'Fe': 8.0, 'Re': 12.0}\",\"('Fe', 'Re')\",OTHERS,False\nmp-974950,\"{'Rb': 3.0, 'Li': 1.0}\",\"('Li', 'Rb')\",OTHERS,False\nmvc-2902,\"{'Ca': 8.0, 'Ti': 10.0, 'Te': 6.0, 'O': 36.0}\",\"('Ca', 'O', 'Te', 'Ti')\",OTHERS,False\nmp-1177125,\"{'Li': 5.0, 'Fe': 3.0, 'O': 2.0, 'F': 10.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-755735,\"{'Li': 2.0, 'Co': 4.0, 'O': 3.0, 'F': 8.0}\",\"('Co', 'F', 'Li', 'O')\",OTHERS,False\nmp-758939,\"{'Li': 4.0, 'Fe': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1224991,\"{'K': 2.0, 'Na': 2.0, 'Ca': 4.0, 'Mg': 15.0, 'Si': 24.0, 'O': 72.0}\",\"('Ca', 'K', 'Mg', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1185553,\"{'Cs': 3.0, 'Hg': 1.0}\",\"('Cs', 'Hg')\",OTHERS,False\nmp-1191623,\"{'Ce': 2.0, 'Ni': 12.0, 'As': 7.0}\",\"('As', 'Ce', 'Ni')\",OTHERS,False\nmp-1094363,\"{'Y': 3.0, 'Mg': 3.0}\",\"('Mg', 'Y')\",OTHERS,False\nmp-3141,\"{'Rh': 3.0, 'In': 3.0, 'Er': 3.0}\",\"('Er', 'In', 'Rh')\",OTHERS,False\nmp-12789,\"{'Al': 20.0, 'Fe': 4.0, 'Yb': 2.0}\",\"('Al', 'Fe', 'Yb')\",OTHERS,False\nmp-541318,\"{'Cs': 2.0, 'Ti': 6.0, 'P': 12.0, 'Si': 4.0, 'O': 50.0}\",\"('Cs', 'O', 'P', 'Si', 'Ti')\",OTHERS,False\nmp-1182147,\"{'C': 4.0, 'S': 4.0, 'N': 8.0}\",\"('C', 'N', 'S')\",OTHERS,False\nmp-1184781,\"{'In': 1.0, 'Ge': 3.0}\",\"('Ge', 'In')\",OTHERS,False\nmp-864926,\"{'Hf': 1.0, 'Pa': 1.0, 'Tc': 2.0}\",\"('Hf', 'Pa', 'Tc')\",OTHERS,False\nmp-38950,\"{'Ce': 4.0, 'O': 14.0, 'Y': 4.0}\",\"('Ce', 'O', 'Y')\",OTHERS,False\nmvc-34,\"{'Mn': 4.0, 'S': 8.0}\",\"('Mn', 'S')\",OTHERS,False\nmp-1177986,\"{'Li': 2.0, 'Fe': 1.0, 'S': 2.0}\",\"('Fe', 'Li', 'S')\",OTHERS,False\nmp-980189,\"{'Yb': 3.0, 'Na': 1.0}\",\"('Na', 'Yb')\",OTHERS,False\nmp-1184097,\"{'Er': 2.0, 'Cu': 1.0, 'Tc': 1.0}\",\"('Cu', 'Er', 'Tc')\",OTHERS,False\nmp-1220765,\"{'Na': 2.0, 'Hf': 6.0, 'N': 6.0, 'Cl': 6.0}\",\"('Cl', 'Hf', 'N', 'Na')\",OTHERS,False\nmp-2398,\"{'Sc': 4.0, 'Sn': 8.0}\",\"('Sc', 'Sn')\",OTHERS,False\nmp-8249,\"{'P': 2.0, 'S': 6.0, 'Tl': 2.0}\",\"('P', 'S', 'Tl')\",OTHERS,False\nmp-1252404,\"{'Ba': 2.0, 'Al': 2.0, 'Ni': 8.0, 'O': 14.0}\",\"('Al', 'Ba', 'Ni', 'O')\",OTHERS,False\nmp-698580,\"{'Co': 7.0, 'Re': 17.0, 'O': 48.0}\",\"('Co', 'O', 'Re')\",OTHERS,False\nmp-1095669,\"{'Hf': 4.0, 'Tc': 8.0}\",\"('Hf', 'Tc')\",OTHERS,False\nmp-1076439,\"{'Ba': 4.0, 'Co': 4.0, 'O': 10.0}\",\"('Ba', 'Co', 'O')\",OTHERS,False\nmp-1205088,\"{'La': 26.0, 'Hg': 116.0}\",\"('Hg', 'La')\",OTHERS,False\nmp-11140,\"{'Sb': 20.0, 'Ho': 8.0}\",\"('Ho', 'Sb')\",OTHERS,False\nmp-1182477,\"{'As': 1.0, 'N': 1.0, 'O': 2.0, 'F': 6.0}\",\"('As', 'F', 'N', 'O')\",OTHERS,False\nmp-768437,\"{'Li': 8.0, 'Bi': 4.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Bi', 'Li', 'O')\",OTHERS,False\nmp-554911,\"{'K': 2.0, 'Mn': 2.0, 'Zn': 4.0, 'Si': 4.0, 'O': 15.0}\",\"('K', 'Mn', 'O', 'Si', 'Zn')\",OTHERS,False\nmp-1079272,\"{'Sr': 2.0, 'Zr': 1.0, 'V': 1.0, 'O': 6.0}\",\"('O', 'Sr', 'V', 'Zr')\",OTHERS,False\nmp-1095833,\"{'Tl': 2.0, 'Hg': 1.0, 'Te': 1.0}\",\"('Hg', 'Te', 'Tl')\",OTHERS,False\nmp-1027058,\"{'Te': 4.0, 'Mo': 2.0, 'W': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Te', 'W')\",OTHERS,False\nmp-1029665,\"{'Sr': 6.0, 'B': 2.0, 'N': 6.0}\",\"('B', 'N', 'Sr')\",OTHERS,False\nmp-1188711,\"{'U': 4.0, 'V': 4.0, 'S': 12.0}\",\"('S', 'U', 'V')\",OTHERS,False\nmp-753374,\"{'Li': 4.0, 'V': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Li', 'O', 'Si', 'V')\",OTHERS,False\nmp-607450,\"{'In': 12.0, 'Ru': 4.0}\",\"('In', 'Ru')\",OTHERS,False\nmp-1199496,\"{'Cd': 48.0, 'As': 32.0}\",\"('As', 'Cd')\",OTHERS,False\nmp-1097684,\"{'Mn': 1.0, 'V': 2.0, 'Mo': 1.0}\",\"('Mn', 'Mo', 'V')\",OTHERS,False\nmp-864894,\"{'Be': 6.0, 'Rh': 2.0}\",\"('Be', 'Rh')\",OTHERS,False\nmp-1113012,\"{'Cs': 2.0, 'Li': 1.0, 'Mo': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Li', 'Mo')\",OTHERS,False\nmp-1246262,\"{'Zn': 4.0, 'Ir': 2.0, 'N': 6.0}\",\"('Ir', 'N', 'Zn')\",OTHERS,False\nmp-1226937,\"{'Ce': 3.0, 'Th': 3.0, 'Si': 4.0}\",\"('Ce', 'Si', 'Th')\",OTHERS,False\nmp-1220898,\"{'Pr': 32.0, 'In': 3.0, 'Rh': 19.0}\",\"('In', 'Pr', 'Rh')\",OTHERS,False\nmp-1185664,\"{'Mg': 16.0, 'Al': 12.0, 'Ga': 1.0}\",\"('Al', 'Ga', 'Mg')\",OTHERS,False\nmp-1187970,\"{'Yb': 3.0, 'Cr': 1.0}\",\"('Cr', 'Yb')\",OTHERS,False\nmp-23082,\"{'O': 12.0, 'Cl': 4.0, 'K': 4.0, 'Cr': 4.0}\",\"('Cl', 'Cr', 'K', 'O')\",OTHERS,False\nmp-759825,\"{'Bi': 4.0, 'O': 4.0, 'F': 4.0}\",\"('Bi', 'F', 'O')\",OTHERS,False\nmp-1185607,\"{'La': 1.0, 'Eu': 1.0, 'Hg': 2.0}\",\"('Eu', 'Hg', 'La')\",OTHERS,False\nmp-720868,\"{'Ca': 4.0, 'Cd': 2.0, 'H': 48.0, 'Cl': 12.0, 'O': 24.0}\",\"('Ca', 'Cd', 'Cl', 'H', 'O')\",OTHERS,False\nmp-1188308,\"{'Er': 10.0, 'Sb': 2.0, 'Au': 4.0}\",\"('Au', 'Er', 'Sb')\",OTHERS,False\nmp-1120802,\"{'Li': 12.0, 'Mn': 1.0, 'Co': 1.0, 'Ni': 10.0, 'O': 24.0}\",\"('Co', 'Li', 'Mn', 'Ni', 'O')\",OTHERS,False\nmp-1096508,\"{'K': 2.0, 'Hg': 1.0, 'Au': 1.0}\",\"('Au', 'Hg', 'K')\",OTHERS,False\nmp-675142,\"{'Yb': 12.0, 'Dy': 4.0, 'Sb': 12.0}\",\"('Dy', 'Sb', 'Yb')\",OTHERS,False\nmp-571189,\"{'Na': 2.0, 'Hf': 4.0, 'Cu': 2.0, 'Se': 10.0}\",\"('Cu', 'Hf', 'Na', 'Se')\",OTHERS,False\nmp-567352,\"{'Ga': 8.0, 'Sb': 32.0, 'Br': 32.0}\",\"('Br', 'Ga', 'Sb')\",OTHERS,False\nmp-754595,\"{'Li': 2.0, 'Ti': 3.0, 'Fe': 1.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-675535,\"{'La': 4.0, 'Sn': 2.0, 'Sb': 8.0}\",\"('La', 'Sb', 'Sn')\",OTHERS,False\nmp-1211930,\"{'K': 4.0, 'Ho': 4.0, 'S': 8.0, 'O': 40.0}\",\"('Ho', 'K', 'O', 'S')\",OTHERS,False\nmp-1226457,\"{'Cs': 16.0, 'Mn': 12.0, 'O': 24.0}\",\"('Cs', 'Mn', 'O')\",OTHERS,False\nmp-1179495,\"{'Si': 1.0, 'Hg': 2.0, 'O': 4.0, 'F': 6.0}\",\"('F', 'Hg', 'O', 'Si')\",OTHERS,False\nmp-605006,\"{'Li': 8.0, 'H': 64.0, 'C': 16.0, 'S': 16.0, 'N': 8.0, 'O': 40.0}\",\"('C', 'H', 'Li', 'N', 'O', 'S')\",OTHERS,False\nmp-1228565,\"{'Ba': 3.0, 'Sr': 3.0, 'Np': 2.0}\",\"('Ba', 'Np', 'Sr')\",OTHERS,False\nmp-31186,\"{'Al': 1.0, 'Fe': 2.0, 'Ni': 1.0}\",\"('Al', 'Fe', 'Ni')\",OTHERS,False\nmp-1202543,\"{'Na': 4.0, 'H': 48.0, 'Ru': 4.0, 'C': 16.0, 'S': 8.0, 'Cl': 16.0, 'O': 8.0}\",\"('C', 'Cl', 'H', 'Na', 'O', 'Ru', 'S')\",OTHERS,False\nmp-1222201,\"{'Mg': 6.0, 'Fe': 2.0, 'Si': 4.0, 'O': 16.0}\",\"('Fe', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1173915,\"{'Li': 4.0, 'Mn': 2.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1215285,\"{'Zr': 2.0, 'Cr': 2.0, 'Cu': 2.0, 'Se': 8.0}\",\"('Cr', 'Cu', 'Se', 'Zr')\",OTHERS,False\nmp-1100673,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-2921,\"{'O': 48.0, 'Ga': 20.0, 'Gd': 12.0}\",\"('Ga', 'Gd', 'O')\",OTHERS,False\nmvc-8002,\"{'Zn': 4.0, 'Co': 6.0, 'O': 16.0}\",\"('Co', 'O', 'Zn')\",OTHERS,False\nmp-1211408,\"{'Lu': 6.0, 'Al': 60.0, 'Re': 12.0}\",\"('Al', 'Lu', 'Re')\",OTHERS,False\nmp-1246181,\"{'Mn': 16.0, 'Si': 40.0, 'N': 64.0}\",\"('Mn', 'N', 'Si')\",OTHERS,False\nmp-11572,\"{'Tc': 1.0, 'Ta': 1.0}\",\"('Ta', 'Tc')\",OTHERS,False\nmp-761916,\"{'Na': 4.0, 'H': 16.0, 'Au': 4.0, 'Br': 16.0, 'O': 8.0}\",\"('Au', 'Br', 'H', 'Na', 'O')\",OTHERS,False\nmp-27842,\"{'Cr': 2.0, 'Br': 2.0, 'O': 2.0}\",\"('Br', 'Cr', 'O')\",OTHERS,False\nmp-1186466,\"{'Pr': 1.0, 'Nd': 1.0, 'Ir': 2.0}\",\"('Ir', 'Nd', 'Pr')\",OTHERS,False\nmp-1188989,\"{'Tb': 6.0, 'Co': 4.0, 'Ge': 6.0}\",\"('Co', 'Ge', 'Tb')\",OTHERS,False\nmp-449,\"{'Si': 6.0, 'Fe': 10.0}\",\"('Fe', 'Si')\",OTHERS,False\nmp-1095201,\"{'Zr': 2.0, 'Cu': 2.0, 'Ge': 4.0}\",\"('Cu', 'Ge', 'Zr')\",OTHERS,False\nmp-765566,\"{'Li': 3.0, 'Ag': 6.0, 'F': 18.0}\",\"('Ag', 'F', 'Li')\",OTHERS,False\nmp-1218787,\"{'Sr': 4.0, 'Ce': 1.0, 'Y': 3.0, 'Cu': 4.0, 'Ru': 2.0, 'O': 20.0}\",\"('Ce', 'Cu', 'O', 'Ru', 'Sr', 'Y')\",OTHERS,False\nmp-1244586,\"{'Zn': 4.0, 'Cr': 4.0, 'Bi': 4.0, 'O': 20.0}\",\"('Bi', 'Cr', 'O', 'Zn')\",OTHERS,False\nmp-22904,\"{'Cl': 4.0, 'Ca': 2.0}\",\"('Ca', 'Cl')\",OTHERS,False\nmp-1175376,\"{'Li': 9.0, 'Co': 7.0, 'O': 16.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1178362,\"{'Dy': 2.0, 'Cl': 2.0, 'O': 2.0}\",\"('Cl', 'Dy', 'O')\",OTHERS,False\nmp-1184860,\"{'Ho': 2.0, 'Mg': 4.0}\",\"('Ho', 'Mg')\",OTHERS,False\nmp-1178916,\"{'V': 4.0, 'P': 4.0, 'H': 44.0, 'O': 36.0}\",\"('H', 'O', 'P', 'V')\",OTHERS,False\nmp-1227166,\"{'Ca': 2.0, 'Nd': 2.0, 'Mn': 4.0, 'O': 12.0}\",\"('Ca', 'Mn', 'Nd', 'O')\",OTHERS,False\nmp-971855,\"{'Tm': 4.0, 'Co': 6.0, 'Si': 10.0}\",\"('Co', 'Si', 'Tm')\",OTHERS,False\nmp-780133,\"{'Mn': 12.0, 'O': 14.0, 'F': 10.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-654,\"{'Fe': 17.0, 'Ce': 2.0}\",\"('Ce', 'Fe')\",OTHERS,False\nmp-755514,\"{'Li': 5.0, 'Mn': 2.0, 'Fe': 3.0, 'O': 10.0}\",\"('Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1013531,\"{'Sr': 3.0, 'Bi': 1.0, 'N': 1.0}\",\"('Bi', 'N', 'Sr')\",OTHERS,False\nmvc-4609,\"{'Mg': 2.0, 'Cu': 4.0, 'O': 8.0}\",\"('Cu', 'Mg', 'O')\",OTHERS,False\nmp-1185395,\"{'Li': 1.0, 'Pm': 3.0}\",\"('Li', 'Pm')\",OTHERS,False\nmvc-4854,\"{'Mg': 4.0, 'Cr': 4.0, 'O': 8.0}\",\"('Cr', 'Mg', 'O')\",OTHERS,False\nmp-27907,\"{'S': 26.0, 'Sb': 12.0, 'Pb': 8.0}\",\"('Pb', 'S', 'Sb')\",OTHERS,False\nmp-1185168,\"{'K': 2.0, 'Rb': 6.0}\",\"('K', 'Rb')\",OTHERS,False\nmp-780535,\"{'Ba': 2.0, 'Lu': 4.0, 'O': 8.0}\",\"('Ba', 'Lu', 'O')\",OTHERS,False\nmp-1224792,\"{'Ga': 1.0, 'Ag': 1.0, 'Se': 2.0}\",\"('Ag', 'Ga', 'Se')\",OTHERS,False\nmp-1093681,\"{'Ca': 1.0, 'In': 1.0, 'Ag': 2.0}\",\"('Ag', 'Ca', 'In')\",OTHERS,False\nmp-555785,\"{'Nd': 4.0, 'Ti': 4.0, 'O': 14.0}\",\"('Nd', 'O', 'Ti')\",OTHERS,False\nmp-2136,\"{'O': 12.0, 'Sb': 8.0}\",\"('O', 'Sb')\",OTHERS,False\nmp-568348,{'P': 84.0},\"('P',)\",OTHERS,False\nmp-555941,\"{'Al': 6.0, 'P': 6.0, 'O': 24.0}\",\"('Al', 'O', 'P')\",OTHERS,False\nmp-1184424,\"{'Dy': 1.0, 'Y': 1.0, 'In': 2.0}\",\"('Dy', 'In', 'Y')\",OTHERS,False\nmp-1208770,\"{'Sr': 6.0, 'Li': 12.0, 'Nb': 4.0, 'O': 22.0}\",\"('Li', 'Nb', 'O', 'Sr')\",OTHERS,False\nmp-764402,\"{'Mn': 2.0, 'Fe': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Fe', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1199399,\"{'Ti': 2.0, 'Si': 14.0, 'H': 96.0, 'C': 32.0, 'O': 4.0}\",\"('C', 'H', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-755678,\"{'Ca': 2.0, 'La': 4.0, 'I': 16.0}\",\"('Ca', 'I', 'La')\",OTHERS,False\nmp-5915,\"{'N': 8.0, 'O': 24.0, 'Tl': 8.0}\",\"('N', 'O', 'Tl')\",OTHERS,False\nmp-1184636,\"{'Hf': 1.0, 'Th': 1.0, 'Tc': 2.0}\",\"('Hf', 'Tc', 'Th')\",OTHERS,False\nmp-1112957,\"{'Cs': 2.0, 'Hg': 1.0, 'Sb': 1.0, 'F': 6.0}\",\"('Cs', 'F', 'Hg', 'Sb')\",OTHERS,False\nmp-1190722,\"{'Mg': 1.0, 'U': 2.0, 'Si': 2.0, 'O': 16.0}\",\"('Mg', 'O', 'Si', 'U')\",OTHERS,False\nmp-561093,\"{'Rb': 8.0, 'Cr': 8.0, 'O': 28.0}\",\"('Cr', 'O', 'Rb')\",OTHERS,False\nmp-867167,\"{'Li': 1.0, 'Ca': 2.0, 'Tl': 1.0}\",\"('Ca', 'Li', 'Tl')\",OTHERS,False\nmp-1194999,\"{'Na': 2.0, 'Co': 4.0, 'As': 6.0, 'O': 20.0}\",\"('As', 'Co', 'Na', 'O')\",OTHERS,False\nmp-1013719,\"{'Ba': 3.0, 'Bi': 1.0, 'Sb': 1.0}\",\"('Ba', 'Bi', 'Sb')\",OTHERS,False\nmp-1184539,\"{'Eu': 2.0, 'Th': 6.0}\",\"('Eu', 'Th')\",OTHERS,False\nmp-18787,\"{'O': 2.0, 'Mn': 3.0, 'Sb': 2.0, 'Ba': 2.0}\",\"('Ba', 'Mn', 'O', 'Sb')\",OTHERS,False\nmp-764587,\"{'Li': 4.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-755126,\"{'Mn': 6.0, 'O': 11.0, 'F': 1.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-973066,\"{'Sc': 1.0, 'Ge': 1.0, 'Rh': 2.0}\",\"('Ge', 'Rh', 'Sc')\",OTHERS,False\nmp-550566,\"{'O': 4.0, 'Bi': 2.0, 'Eu': 1.0, 'Cl': 1.0}\",\"('Bi', 'Cl', 'Eu', 'O')\",OTHERS,False\nmp-755519,\"{'Li': 3.0, 'Mn': 1.0, 'Cr': 3.0, 'O': 8.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-607479,\"{'Eu': 4.0, 'Rb': 4.0, 'Si': 4.0, 'S': 16.0}\",\"('Eu', 'Rb', 'S', 'Si')\",OTHERS,False\nmp-1224835,\"{'Fe': 2.0, 'Pb': 3.0, 'W': 1.0, 'O': 9.0}\",\"('Fe', 'O', 'Pb', 'W')\",OTHERS,False\nmp-17642,\"{'O': 24.0, 'Cr': 4.0, 'Rb': 4.0, 'U': 4.0}\",\"('Cr', 'O', 'Rb', 'U')\",OTHERS,False\nmvc-11925,\"{'Mg': 2.0, 'Bi': 2.0, 'P': 2.0, 'O': 12.0}\",\"('Bi', 'Mg', 'O', 'P')\",OTHERS,False\nmp-780570,\"{'Ti': 8.0, 'S': 16.0, 'O': 64.0}\",\"('O', 'S', 'Ti')\",OTHERS,False\nmp-1094067,\"{'Sc': 4.0, 'F': 12.0}\",\"('F', 'Sc')\",OTHERS,False\nmp-18444,\"{'O': 12.0, 'Cu': 2.0, 'Sr': 6.0, 'Rh': 2.0}\",\"('Cu', 'O', 'Rh', 'Sr')\",OTHERS,False\nmp-849415,\"{'Li': 8.0, 'Fe': 8.0, 'P': 16.0, 'O': 56.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-4840,\"{'Cu': 2.0, 'Ga': 2.0, 'Se': 4.0}\",\"('Cu', 'Ga', 'Se')\",OTHERS,False\nmp-1220322,\"{'Nb': 1.0, 'Re': 1.0}\",\"('Nb', 'Re')\",OTHERS,False\nmvc-15235,\"{'Y': 4.0, 'Cr': 12.0, 'O': 36.0}\",\"('Cr', 'O', 'Y')\",OTHERS,False\nmp-26453,\"{'Li': 6.0, 'Mn': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-9848,\"{'P': 10.0, 'Pr': 2.0}\",\"('P', 'Pr')\",OTHERS,False\nmp-1197740,\"{'Ce': 8.0, 'Si': 4.0, 'S': 20.0}\",\"('Ce', 'S', 'Si')\",OTHERS,False\nmp-1075184,\"{'Mg': 6.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1214076,\"{'Ca': 2.0, 'Al': 4.0, 'Si': 8.0, 'H': 4.0, 'O': 24.0}\",\"('Al', 'Ca', 'H', 'O', 'Si')\",OTHERS,False\nmp-1036621,\"{'Y': 1.0, 'Mg': 14.0, 'Al': 1.0, 'O': 16.0}\",\"('Al', 'Mg', 'O', 'Y')\",OTHERS,False\nmp-1223672,\"{'K': 2.0, 'Ba': 1.0, 'Bi': 3.0, 'O': 9.0}\",\"('Ba', 'Bi', 'K', 'O')\",OTHERS,False\nmp-2633,\"{'O': 8.0, 'Ge': 4.0}\",\"('Ge', 'O')\",OTHERS,False\nmvc-5236,\"{'Sn': 12.0, 'O': 24.0}\",\"('O', 'Sn')\",OTHERS,False\nmp-1216036,\"{'Zn': 6.0, 'Co': 8.0, 'Sb': 4.0, 'O': 24.0}\",\"('Co', 'O', 'Sb', 'Zn')\",OTHERS,False\nmp-569341,\"{'Nd': 3.0, 'B': 3.0, 'Pt': 6.0}\",\"('B', 'Nd', 'Pt')\",OTHERS,False\nmp-1194728,\"{'Ba': 6.0, 'Na': 2.0, 'Gd': 6.0, 'Si': 12.0, 'O': 40.0}\",\"('Ba', 'Gd', 'Na', 'O', 'Si')\",OTHERS,False\nmp-558498,\"{'Zn': 8.0, 'Ga': 8.0, 'N': 8.0, 'O': 8.0}\",\"('Ga', 'N', 'O', 'Zn')\",OTHERS,False\nmp-18737,\"{'Nd': 4.0, 'Ni': 2.0, 'O': 8.0}\",\"('Nd', 'Ni', 'O')\",OTHERS,False\nmp-17167,\"{'Be': 6.0, 'O': 24.0, 'Si': 6.0, 'Cd': 8.0, 'Te': 2.0}\",\"('Be', 'Cd', 'O', 'Si', 'Te')\",OTHERS,False\nmp-530524,\"{'F': 60.0, 'Tl': 4.0, 'Zr': 12.0}\",\"('F', 'Tl', 'Zr')\",OTHERS,False\nmp-1196849,\"{'Fe': 6.0, 'W': 20.0, 'C': 6.0}\",\"('C', 'Fe', 'W')\",OTHERS,False\nmp-17540,\"{'O': 18.0, 'Co': 2.0, 'Se': 6.0, 'Sr': 4.0}\",\"('Co', 'O', 'Se', 'Sr')\",OTHERS,False\nmp-541929,\"{'Fe': 4.0, 'P': 12.0, 'Si': 4.0, 'O': 44.0}\",\"('Fe', 'O', 'P', 'Si')\",OTHERS,False\nmp-600006,\"{'Si': 20.0, 'O': 40.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1222757,\"{'Li': 2.0, 'Mg': 1.0, 'Ti': 9.0, 'O': 20.0}\",\"('Li', 'Mg', 'O', 'Ti')\",OTHERS,False\nmp-1189806,\"{'Yb': 4.0, 'Cu': 2.0, 'Ge': 12.0}\",\"('Cu', 'Ge', 'Yb')\",OTHERS,False\nmp-768139,\"{'Li': 16.0, 'Sb': 4.0, 'S': 2.0}\",\"('Li', 'S', 'Sb')\",OTHERS,False\nmp-772646,\"{'Li': 12.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-15753,\"{'Li': 4.0, 'As': 4.0, 'Ba': 3.0}\",\"('As', 'Ba', 'Li')\",OTHERS,False\nmp-755859,\"{'Li': 4.0, 'Mn': 1.0, 'Fe': 3.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1180419,\"{'Na': 8.0, 'Ag': 8.0, 'I': 16.0, 'O': 24.0}\",\"('Ag', 'I', 'Na', 'O')\",OTHERS,False\nmp-867913,\"{'Li': 1.0, 'Ho': 2.0, 'Ir': 1.0}\",\"('Ho', 'Ir', 'Li')\",OTHERS,False\nmp-26552,\"{'O': 44.0, 'P': 12.0, 'Co': 10.0}\",\"('Co', 'O', 'P')\",OTHERS,False\nmp-998762,\"{'Mn': 1.0, 'Tl': 1.0, 'F': 3.0}\",\"('F', 'Mn', 'Tl')\",OTHERS,False\nmp-863389,\"{'Nb': 16.0, 'Tl': 16.0, 'O': 53.0}\",\"('Nb', 'O', 'Tl')\",OTHERS,False\nmp-772663,\"{'Mn': 2.0, 'H': 8.0, 'S': 4.0, 'O': 20.0}\",\"('H', 'Mn', 'O', 'S')\",OTHERS,False\nmvc-8085,\"{'Zn': 2.0, 'Cu': 2.0, 'Ge': 4.0, 'O': 12.0}\",\"('Cu', 'Ge', 'O', 'Zn')\",OTHERS,False\nmp-1080559,\"{'In': 2.0, 'Ga': 4.0, 'Au': 4.0}\",\"('Au', 'Ga', 'In')\",OTHERS,False\nmp-1246818,\"{'Sr': 40.0, 'Cd': 8.0, 'N': 32.0}\",\"('Cd', 'N', 'Sr')\",OTHERS,False\nmp-6872,\"{'N': 2.0, 'O': 6.0, 'F': 12.0, 'Si': 2.0, 'K': 6.0}\",\"('F', 'K', 'N', 'O', 'Si')\",OTHERS,False\nmp-774354,\"{'Li': 4.0, 'Mn': 8.0, 'F': 20.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-1226833,\"{'Ce': 2.0, 'Zn': 3.0, 'Cu': 7.0}\",\"('Ce', 'Cu', 'Zn')\",OTHERS,False\nmp-1203228,\"{'La': 6.0, 'Rh': 8.0, 'Pb': 26.0}\",\"('La', 'Pb', 'Rh')\",OTHERS,False\nmp-1038195,\"{'Mg': 30.0, 'Al': 1.0, 'C': 1.0, 'O': 32.0}\",\"('Al', 'C', 'Mg', 'O')\",OTHERS,False\nmp-778583,\"{'Li': 3.0, 'Mn': 2.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-667447,\"{'Te': 8.0, 'As': 8.0, 'Se': 16.0, 'F': 48.0}\",\"('As', 'F', 'Se', 'Te')\",OTHERS,False\nmp-1189078,\"{'Na': 2.0, 'Al': 2.0, 'C': 2.0, 'O': 10.0}\",\"('Al', 'C', 'Na', 'O')\",OTHERS,False\nmp-1181438,\"{'Er': 10.0, 'Bi': 2.0, 'Au': 4.0}\",\"('Au', 'Bi', 'Er')\",OTHERS,False\nmp-22253,\"{'S': 4.0, 'Zn': 1.0, 'In': 2.0}\",\"('In', 'S', 'Zn')\",OTHERS,False\nmp-758848,\"{'Ti': 5.0, 'Nb': 1.0, 'O': 12.0}\",\"('Nb', 'O', 'Ti')\",OTHERS,False\nmp-25466,\"{'Li': 2.0, 'C': 2.0, 'O': 14.0, 'P': 2.0, 'Cu': 2.0}\",\"('C', 'Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-1096900,\"{'Cr': 4.0, 'N': 8.0}\",\"('Cr', 'N')\",OTHERS,False\nmp-865409,\"{'U': 1.0, 'Tc': 2.0, 'Sn': 1.0}\",\"('Sn', 'Tc', 'U')\",OTHERS,False\nmp-11243,\"{'Er': 2.0, 'Au': 2.0}\",\"('Au', 'Er')\",OTHERS,False\nmp-864637,\"{'Nd': 8.0, 'Al': 8.0}\",\"('Al', 'Nd')\",OTHERS,False\nmp-1080454,\"{'Dy': 3.0, 'Pd': 3.0, 'Pb': 3.0}\",\"('Dy', 'Pb', 'Pd')\",OTHERS,False\nmvc-9392,\"{'Pr': 2.0, 'Mg': 2.0, 'Mo': 4.0, 'O': 12.0}\",\"('Mg', 'Mo', 'O', 'Pr')\",OTHERS,False\nmp-1203188,\"{'Ca': 8.0, 'As': 4.0, 'H': 16.0, 'F': 52.0}\",\"('As', 'Ca', 'F', 'H')\",OTHERS,False\nmp-1246325,\"{'Ta': 2.0, 'Mn': 4.0, 'N': 6.0}\",\"('Mn', 'N', 'Ta')\",OTHERS,False\nmp-754598,\"{'Hg': 9.0, 'Se': 3.0, 'O': 18.0}\",\"('Hg', 'O', 'Se')\",OTHERS,False\nmp-1210098,\"{'Rb': 8.0, 'Ce': 4.0, 'Cl': 20.0}\",\"('Ce', 'Cl', 'Rb')\",OTHERS,False\nmp-865876,\"{'Ti': 2.0, 'Tc': 1.0, 'Os': 1.0}\",\"('Os', 'Tc', 'Ti')\",OTHERS,False\nmp-505765,\"{'Ba': 20.0, 'Co': 20.0, 'N': 20.0}\",\"('Ba', 'Co', 'N')\",OTHERS,False\nmp-697563,\"{'Ca': 4.0, 'Mg': 1.0, 'B': 4.0, 'H': 6.0, 'C': 2.0, 'O': 18.0}\",\"('B', 'C', 'Ca', 'H', 'Mg', 'O')\",OTHERS,False\nmp-756308,\"{'Li': 4.0, 'Ti': 3.0, 'Fe': 3.0, 'Sn': 2.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Sn', 'Ti')\",OTHERS,False\nmp-1173971,\"{'Li': 6.0, 'Mn': 2.0, 'Co': 2.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1105758,\"{'Al': 2.0, 'Tl': 4.0, 'O': 2.0, 'F': 10.0}\",\"('Al', 'F', 'O', 'Tl')\",OTHERS,False\nmp-28538,\"{'H': 12.0, 'Si': 4.0, 'I': 4.0}\",\"('H', 'I', 'Si')\",OTHERS,False\nmp-569557,\"{'Dy': 6.0, 'Si': 2.0, 'Cu': 2.0, 'Se': 14.0}\",\"('Cu', 'Dy', 'Se', 'Si')\",OTHERS,False\nmp-3255,\"{'O': 6.0, 'Cu': 4.0, 'Sr': 2.0}\",\"('Cu', 'O', 'Sr')\",OTHERS,False\nmp-17620,\"{'B': 6.0, 'O': 18.0, 'Tm': 6.0}\",\"('B', 'O', 'Tm')\",OTHERS,False\nmp-1185759,\"{'Mg': 17.0, 'Al': 11.0, 'Tl': 1.0}\",\"('Al', 'Mg', 'Tl')\",OTHERS,False\nmp-735563,\"{'Cs': 1.0, 'Co': 1.0, 'H': 18.0, 'N': 6.0, 'Cl': 4.0, 'O': 8.0}\",\"('Cl', 'Co', 'Cs', 'H', 'N', 'O')\",OTHERS,False\nmp-8371,\"{'C': 2.0, 'Lu': 1.0}\",\"('C', 'Lu')\",OTHERS,False\nmp-1205435,\"{'K': 8.0, 'Fe': 8.0, 'P': 8.0, 'O': 28.0, 'F': 8.0}\",\"('F', 'Fe', 'K', 'O', 'P')\",OTHERS,False\nmp-504722,\"{'Ni': 4.0, 'N': 8.0, 'O': 24.0}\",\"('N', 'Ni', 'O')\",OTHERS,False\nmp-7237,\"{'O': 4.0, 'Cu': 2.0, 'Ag': 2.0}\",\"('Ag', 'Cu', 'O')\",OTHERS,False\nmp-1078200,\"{'V': 2.0, 'Co': 1.0, 'Se': 4.0}\",\"('Co', 'Se', 'V')\",OTHERS,False\nmp-1177476,\"{'Li': 3.0, 'V': 5.0, 'O': 12.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1187133,\"{'Sr': 6.0, 'Fe': 2.0}\",\"('Fe', 'Sr')\",OTHERS,False\nmp-720332,\"{'Na': 5.0, 'Ca': 1.0, 'Al': 5.0, 'Fe': 1.0, 'Si': 12.0, 'O': 36.0}\",\"('Al', 'Ca', 'Fe', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1219396,\"{'Sc': 2.0, 'Te': 3.0}\",\"('Sc', 'Te')\",OTHERS,False\nmvc-1364,\"{'Ba': 2.0, 'V': 3.0, 'O': 7.0}\",\"('Ba', 'O', 'V')\",OTHERS,False\nmp-760095,\"{'Li': 6.0, 'Mn': 6.0, 'F': 18.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-761214,\"{'Li': 3.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1024991,\"{'Er': 2.0, 'Cu': 4.0}\",\"('Cu', 'Er')\",OTHERS,False\nmp-1175447,\"{'Li': 9.0, 'Co': 7.0, 'O': 16.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1225379,\"{'Fe': 30.0, 'Si': 6.0, 'P': 6.0}\",\"('Fe', 'P', 'Si')\",OTHERS,False\nmp-20294,\"{'Rh': 1.0, 'In': 5.0, 'Ce': 1.0}\",\"('Ce', 'In', 'Rh')\",OTHERS,False\nmp-977207,\"{'Li': 4.0, 'Mg': 2.0}\",\"('Li', 'Mg')\",OTHERS,False\nmp-1199265,\"{'Nb': 4.0, 'Pb': 4.0, 'Se': 8.0, 'O': 30.0}\",\"('Nb', 'O', 'Pb', 'Se')\",OTHERS,False\nmp-1181157,\"{'K': 2.0, 'La': 2.0, 'C': 8.0, 'O': 22.0}\",\"('C', 'K', 'La', 'O')\",OTHERS,False\nmp-774219,\"{'Li': 3.0, 'Mn': 1.0, 'Co': 3.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-17217,\"{'Ge': 4.0, 'Te': 12.0, 'Tl': 12.0}\",\"('Ge', 'Te', 'Tl')\",OTHERS,False\nmp-1096250,\"{'Ti': 1.0, 'V': 1.0, 'Mo': 2.0}\",\"('Mo', 'Ti', 'V')\",OTHERS,False\nmp-1222270,\"{'Li': 1.0, 'Mg': 1.0}\",\"('Li', 'Mg')\",OTHERS,False\nmp-1221952,\"{'Mg': 1.0, 'Ti': 2.0, 'Ni': 1.0, 'O': 6.0}\",\"('Mg', 'Ni', 'O', 'Ti')\",OTHERS,False\nmp-1215969,\"{'Yb': 20.0, 'Cd': 3.0, 'Au': 9.0}\",\"('Au', 'Cd', 'Yb')\",OTHERS,False\nmp-1174093,\"{'Li': 4.0, 'Mn': 1.0, 'Co': 3.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-672653,\"{'Nb': 6.0, 'Ni': 16.0, 'Ge': 7.0}\",\"('Ge', 'Nb', 'Ni')\",OTHERS,False\nmp-1215993,\"{'Y': 1.0, 'Bi': 3.0, 'Ru': 4.0, 'O': 14.0}\",\"('Bi', 'O', 'Ru', 'Y')\",OTHERS,False\nmp-26716,\"{'O': 28.0, 'P': 8.0, 'Co': 4.0}\",\"('Co', 'O', 'P')\",OTHERS,False\nmp-15317,\"{'F': 6.0, 'Na': 1.0, 'Rb': 2.0, 'Ho': 1.0}\",\"('F', 'Ho', 'Na', 'Rb')\",OTHERS,False\nmp-862287,\"{'Be': 1.0, 'Al': 1.0, 'Rh': 2.0}\",\"('Al', 'Be', 'Rh')\",OTHERS,False\nmp-30187,\"{'O': 11.0, 'Ga': 2.0, 'Te': 4.0}\",\"('Ga', 'O', 'Te')\",OTHERS,False\nmp-560092,\"{'Rb': 2.0, 'Na': 10.0, 'Be': 16.0, 'O': 22.0}\",\"('Be', 'Na', 'O', 'Rb')\",OTHERS,False\nmp-1097242,\"{'Y': 1.0, 'Sc': 1.0, 'Au': 2.0}\",\"('Au', 'Sc', 'Y')\",OTHERS,False\nmp-698218,\"{'La': 2.0, 'H': 26.0, 'C': 6.0, 'S': 6.0, 'O': 22.0}\",\"('C', 'H', 'La', 'O', 'S')\",OTHERS,False\nmp-1080742,\"{'Sr': 2.0, 'Zr': 1.0, 'Cr': 1.0, 'O': 6.0}\",\"('Cr', 'O', 'Sr', 'Zr')\",OTHERS,False\nmp-560791,\"{'Cs': 2.0, 'Na': 2.0, 'Ti': 2.0, 'O': 6.0}\",\"('Cs', 'Na', 'O', 'Ti')\",OTHERS,False\nmp-698183,\"{'Mg': 3.0, 'P': 2.0, 'H': 44.0, 'O': 30.0}\",\"('H', 'Mg', 'O', 'P')\",OTHERS,False\nmp-11765,\"{'Ti': 5.0, 'Se': 4.0}\",\"('Se', 'Ti')\",OTHERS,False\nmp-29062,\"{'F': 24.0, 'Zr': 4.0, 'Th': 2.0}\",\"('F', 'Th', 'Zr')\",OTHERS,False\nmp-554144,\"{'F': 7.0, 'K': 3.0, 'Mn': 2.0}\",\"('F', 'K', 'Mn')\",OTHERS,False\nmp-1111199,\"{'K': 2.0, 'Al': 1.0, 'Tl': 1.0, 'I': 6.0}\",\"('Al', 'I', 'K', 'Tl')\",OTHERS,False\nmp-733610,\"{'H': 14.0, 'C': 6.0, 'N': 6.0, 'O': 10.0}\",\"('C', 'H', 'N', 'O')\",OTHERS,False\nmp-19241,\"{'O': 6.0, 'Ni': 2.0, 'Ba': 2.0}\",\"('Ba', 'Ni', 'O')\",OTHERS,False\nmp-1207591,\"{'Yb': 2.0, 'Eu': 2.0, 'Cu': 2.0, 'S': 6.0}\",\"('Cu', 'Eu', 'S', 'Yb')\",OTHERS,False\nmp-757117,\"{'Li': 4.0, 'Fe': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1246919,\"{'Mn': 10.0, 'Ge': 4.0, 'N': 12.0}\",\"('Ge', 'Mn', 'N')\",OTHERS,False\nmp-768303,\"{'Dy': 2.0, 'Nb': 2.0, 'O': 8.0}\",\"('Dy', 'Nb', 'O')\",OTHERS,False\nmp-1080375,\"{'Ce': 24.0, 'Se': 48.0}\",\"('Ce', 'Se')\",OTHERS,False\nmvc-2270,\"{'Ca': 2.0, 'Mn': 9.0, 'O': 13.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,False\nmp-1080314,\"{'Ce': 6.0, 'Se': 12.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-979963,\"{'Yb': 3.0, 'Ti': 1.0}\",\"('Ti', 'Yb')\",OTHERS,False\nmp-21172,\"{'Pb': 3.0, 'Pu': 1.0}\",\"('Pb', 'Pu')\",OTHERS,False\nmp-1185438,\"{'Lu': 3.0, 'Hg': 1.0}\",\"('Hg', 'Lu')\",OTHERS,False\nmvc-16196,\"{'Zn': 4.0, 'Bi': 4.0, 'O': 10.0}\",\"('Bi', 'O', 'Zn')\",OTHERS,False\nmp-1229223,\"{'As': 14.0, 'H': 6.0, 'O': 31.0}\",\"('As', 'H', 'O')\",OTHERS,False\nmp-12716,\"{'Li': 1.0, 'Pd': 2.0, 'Tl': 1.0}\",\"('Li', 'Pd', 'Tl')\",OTHERS,False\nmp-1095753,\"{'La': 2.0, 'Tl': 1.0, 'Ag': 1.0}\",\"('Ag', 'La', 'Tl')\",OTHERS,False\nmp-849302,\"{'Li': 6.0, 'Fe': 8.0, 'F': 38.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-1192181,\"{'Au': 2.0, 'C': 8.0, 'N': 8.0, 'O': 4.0}\",\"('Au', 'C', 'N', 'O')\",OTHERS,False\nmp-567601,\"{'Sr': 16.0, 'C': 4.0, 'N': 16.0}\",\"('C', 'N', 'Sr')\",OTHERS,False\nmp-1220026,\"{'Pr': 1.0, 'Er': 1.0, 'Co': 17.0}\",\"('Co', 'Er', 'Pr')\",OTHERS,False\nmp-8351,\"{'O': 16.0, 'Na': 4.0, 'Al': 4.0, 'Si': 4.0}\",\"('Al', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1079201,\"{'B': 2.0, 'C': 4.0, 'N': 2.0}\",\"('B', 'C', 'N')\",OTHERS,False\nmp-641661,\"{'Xe': 16.0, 'F': 96.0}\",\"('F', 'Xe')\",OTHERS,False\nmp-1222046,\"{'Mg': 1.0, 'Fe': 4.0, 'Cu': 1.0, 'O': 8.0}\",\"('Cu', 'Fe', 'Mg', 'O')\",OTHERS,False\nmp-761163,\"{'Na': 2.0, 'Ni': 7.0, 'O': 14.0}\",\"('Na', 'Ni', 'O')\",OTHERS,False\nmp-755855,\"{'Li': 2.0, 'Fe': 3.0, 'Bi': 1.0, 'O': 8.0}\",\"('Bi', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1193346,\"{'Zr': 16.0, 'Co': 8.0, 'N': 4.0}\",\"('Co', 'N', 'Zr')\",OTHERS,False\nmp-9069,\"{'Na': 2.0, 'Al': 2.0, 'K': 4.0, 'As': 4.0}\",\"('Al', 'As', 'K', 'Na')\",OTHERS,False\nmp-1176348,\"{'Na': 10.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Na', 'O', 'P')\",OTHERS,False\nmp-1226096,\"{'Co': 7.0, 'Ge': 4.0}\",\"('Co', 'Ge')\",OTHERS,False\nmp-1246494,\"{'Sr': 12.0, 'Rh': 8.0, 'N': 16.0}\",\"('N', 'Rh', 'Sr')\",OTHERS,False\nmp-1204289,\"{'Cs': 32.0, 'Bi': 8.0, 'As': 24.0, 'Se': 56.0}\",\"('As', 'Bi', 'Cs', 'Se')\",OTHERS,False\nmp-685863,\"{'Li': 24.0, 'Si': 6.0, 'O': 24.0}\",\"('Li', 'O', 'Si')\",OTHERS,False\nmp-743584,\"{'H': 12.0, 'W': 1.0, 'N': 3.0, 'O': 3.0, 'F': 3.0}\",\"('F', 'H', 'N', 'O', 'W')\",OTHERS,False\nmp-20318,\"{'B': 2.0, 'Mn': 4.0}\",\"('B', 'Mn')\",OTHERS,False\nmvc-10529,\"{'P': 8.0, 'W': 8.0, 'O': 32.0}\",\"('O', 'P', 'W')\",OTHERS,False\nmp-756442,\"{'Mg': 2.0, 'Co': 4.0, 'O': 8.0}\",\"('Co', 'Mg', 'O')\",OTHERS,False\nmp-753010,\"{'Li': 8.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1221833,\"{'Mn': 2.0, 'Ni': 1.0, 'Sb': 2.0, 'Pt': 1.0}\",\"('Mn', 'Ni', 'Pt', 'Sb')\",OTHERS,False\nmp-23870,\"{'H': 1.0, 'Na': 1.0}\",\"('H', 'Na')\",OTHERS,False\nmp-1182867,\"{'Al': 2.0, 'W': 2.0, 'O': 8.0}\",\"('Al', 'O', 'W')\",OTHERS,False\nmp-1218922,\"{'Sn': 1.0, 'Te': 1.0, 'Pb': 4.0, 'S': 4.0}\",\"('Pb', 'S', 'Sn', 'Te')\",OTHERS,False\nmp-777761,\"{'Li': 6.0, 'Mn': 1.0, 'V': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1208574,\"{'Ta': 16.0, 'Se': 32.0, 'S': 4.0, 'I': 32.0}\",\"('I', 'S', 'Se', 'Ta')\",OTHERS,False\nmp-1071985,\"{'Ce': 2.0, 'Sn': 2.0, 'Au': 2.0}\",\"('Au', 'Ce', 'Sn')\",OTHERS,False\nmp-1185215,\"{'Li': 6.0, 'Fe': 2.0}\",\"('Fe', 'Li')\",OTHERS,False\nmp-1080356,\"{'Ce': 18.0, 'Se': 36.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-1112935,\"{'Cs': 2.0, 'Ta': 1.0, 'Ag': 1.0, 'I': 6.0}\",\"('Ag', 'Cs', 'I', 'Ta')\",OTHERS,False\nmp-22291,\"{'Se': 6.0, 'Cs': 2.0, 'Gd': 2.0, 'Hg': 2.0}\",\"('Cs', 'Gd', 'Hg', 'Se')\",OTHERS,False\nmp-505089,\"{'Li': 16.0, 'Tb': 4.0, 'F': 32.0}\",\"('F', 'Li', 'Tb')\",OTHERS,False\nmp-1237354,\"{'H': 14.0, 'C': 4.0, 'N': 14.0, 'O': 12.0}\",\"('C', 'H', 'N', 'O')\",OTHERS,False\nmp-1185407,\"{'Li': 1.0, 'Pr': 1.0, 'Au': 2.0}\",\"('Au', 'Li', 'Pr')\",OTHERS,False\nmp-28204,\"{'H': 28.0, 'O': 16.0, 'Cs': 4.0}\",\"('Cs', 'H', 'O')\",OTHERS,False\nmp-1245424,\"{'Ge': 4.0, 'Pb': 28.0, 'N': 24.0}\",\"('Ge', 'N', 'Pb')\",OTHERS,False\nmp-1212627,\"{'Mn': 2.0, 'C': 12.0, 'O': 12.0}\",\"('C', 'Mn', 'O')\",OTHERS,False\nmp-510564,\"{'Nd': 1.0, 'Rh': 1.0, 'In': 5.0}\",\"('In', 'Nd', 'Rh')\",OTHERS,False\nmvc-9167,\"{'Mg': 4.0, 'Co': 12.0, 'O': 28.0}\",\"('Co', 'Mg', 'O')\",OTHERS,False\nmp-1210992,\"{'Li': 2.0, 'Sm': 2.0, 'S': 4.0, 'O': 16.0}\",\"('Li', 'O', 'S', 'Sm')\",OTHERS,False\nmp-891,\"{'Ni': 6.0, 'Ta': 2.0}\",\"('Ni', 'Ta')\",OTHERS,False\nmp-1216097,\"{'Y': 3.0, 'Bi': 1.0, 'Ru': 4.0, 'O': 14.0}\",\"('Bi', 'O', 'Ru', 'Y')\",OTHERS,False\nmp-1104382,\"{'Cr': 4.0, 'Ga': 2.0, 'S': 8.0}\",\"('Cr', 'Ga', 'S')\",OTHERS,False\nmp-1224071,\"{'K': 10.0, 'Cu': 2.0, 'C': 2.0, 'O': 10.0}\",\"('C', 'Cu', 'K', 'O')\",OTHERS,False\nmp-1196392,\"{'Li': 8.0, 'B': 8.0, 'H': 40.0, 'N': 8.0}\",\"('B', 'H', 'Li', 'N')\",OTHERS,False\nmp-1076766,\"{'La': 20.0, 'Sm': 12.0, 'V': 4.0, 'Cr': 28.0, 'O': 80.0}\",\"('Cr', 'La', 'O', 'Sm', 'V')\",OTHERS,False\nmp-779989,\"{'Gd': 8.0, 'P': 16.0, 'O': 52.0}\",\"('Gd', 'O', 'P')\",OTHERS,False\nmp-1184280,\"{'Fe': 6.0, 'W': 2.0}\",\"('Fe', 'W')\",OTHERS,False\nmp-1246053,\"{'Ba': 6.0, 'Nb': 4.0, 'N': 8.0}\",\"('Ba', 'N', 'Nb')\",OTHERS,False\nmp-1193310,\"{'Cr': 22.0, 'W': 1.0, 'C': 6.0}\",\"('C', 'Cr', 'W')\",OTHERS,False\nmp-772781,\"{'Lu': 4.0, 'B': 8.0, 'O': 18.0}\",\"('B', 'Lu', 'O')\",OTHERS,False\nmp-17639,\"{'Zn': 17.0, 'Y': 2.0}\",\"('Y', 'Zn')\",OTHERS,False\nmp-1025934,\"{'Mo': 2.0, 'W': 1.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-776574,\"{'V': 6.0, 'O': 9.0, 'F': 9.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-17712,\"{'O': 22.0, 'Si': 4.0, 'V': 5.0, 'Pr': 4.0}\",\"('O', 'Pr', 'Si', 'V')\",OTHERS,False\nmp-1183407,\"{'Be': 3.0, 'Si': 1.0}\",\"('Be', 'Si')\",OTHERS,False\nmp-1105280,\"{'Li': 4.0, 'Ta': 4.0, 'O': 12.0}\",\"('Li', 'O', 'Ta')\",OTHERS,False\nmp-1202587,\"{'K': 4.0, 'Ho': 8.0, 'F': 28.0}\",\"('F', 'Ho', 'K')\",OTHERS,False\nmp-1185267,\"{'Li': 1.0, 'Np': 1.0, 'Ru': 2.0}\",\"('Li', 'Np', 'Ru')\",OTHERS,False\nmp-1217134,\"{'Ti': 3.0, 'V': 1.0, 'S': 4.0}\",\"('S', 'Ti', 'V')\",OTHERS,False\nmp-1222159,\"{'Mg': 4.0, 'Fe': 1.0, 'O': 5.0}\",\"('Fe', 'Mg', 'O')\",OTHERS,False\nmp-1020683,\"{'Na': 2.0, 'Ca': 2.0, 'P': 6.0, 'O': 18.0}\",\"('Ca', 'Na', 'O', 'P')\",OTHERS,False\nmp-1097672,\"{'Cs': 2.0, 'Hg': 1.0, 'Te': 1.0}\",\"('Cs', 'Hg', 'Te')\",OTHERS,False\nmp-758647,\"{'Li': 4.0, 'V': 11.0, 'O': 22.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1189298,\"{'Yb': 4.0, 'B': 16.0}\",\"('B', 'Yb')\",OTHERS,False\nmp-1213811,\"{'Cs': 4.0, 'Co': 2.0, 'S': 4.0, 'O': 28.0}\",\"('Co', 'Cs', 'O', 'S')\",OTHERS,False\nmp-620058,\"{'Pb': 12.0, 'N': 72.0}\",\"('N', 'Pb')\",OTHERS,False\nmp-672394,\"{'Yb': 2.0, 'In': 8.0, 'Ni': 2.0}\",\"('In', 'Ni', 'Yb')\",OTHERS,False\nmp-1197699,\"{'Pt': 8.0, 'Cl': 32.0, 'O': 28.0}\",\"('Cl', 'O', 'Pt')\",OTHERS,False\nmp-1229219,\"{'Ag': 3.0, 'Te': 32.0, 'Au': 13.0}\",\"('Ag', 'Au', 'Te')\",OTHERS,False\nmp-1175016,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmvc-15019,\"{'V': 4.0, 'P': 6.0, 'O': 24.0}\",\"('O', 'P', 'V')\",OTHERS,False\nmp-695887,\"{'K': 3.0, 'Cu': 2.0, 'P': 4.0, 'H': 1.0, 'O': 14.0}\",\"('Cu', 'H', 'K', 'O', 'P')\",OTHERS,False\nmp-1174763,\"{'Li': 5.0, 'Mn': 3.0, 'O': 8.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-774530,\"{'Ba': 8.0, 'Ti': 22.0, 'O': 52.0}\",\"('Ba', 'O', 'Ti')\",OTHERS,False\nmp-753484,\"{'Cr': 4.0, 'O': 4.0, 'F': 4.0}\",\"('Cr', 'F', 'O')\",OTHERS,False\nmp-1204490,\"{'Nb': 8.0, 'Cu': 4.0, 'O': 24.0}\",\"('Cu', 'Nb', 'O')\",OTHERS,False\nmp-556136,\"{'K': 4.0, 'Mo': 4.0, 'I': 4.0, 'O': 24.0}\",\"('I', 'K', 'Mo', 'O')\",OTHERS,False\nmp-1217894,\"{'Ta': 1.0, 'Re': 1.0}\",\"('Re', 'Ta')\",OTHERS,False\nmp-1208931,\"{'Sr': 2.0, 'Er': 1.0, 'Cu': 2.0, 'Bi': 2.0, 'O': 8.0}\",\"('Bi', 'Cu', 'Er', 'O', 'Sr')\",OTHERS,False\nmp-1185751,\"{'Mg': 17.0, 'Al': 11.0, 'Si': 1.0}\",\"('Al', 'Mg', 'Si')\",OTHERS,False\nmp-775168,\"{'Mn': 1.0, 'Cu': 3.0, 'P': 4.0, 'O': 16.0}\",\"('Cu', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1038690,\"{'Ba': 1.0, 'Mg': 30.0, 'Cr': 1.0, 'O': 32.0}\",\"('Ba', 'Cr', 'Mg', 'O')\",OTHERS,False\nmp-1196002,\"{'Mg': 16.0, 'Si': 16.0, 'O': 48.0}\",\"('Mg', 'O', 'Si')\",OTHERS,False\nmp-684265,\"{'Mg': 4.0, 'Al': 8.0, 'Si': 10.0, 'O': 36.0}\",\"('Al', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-769592,\"{'Na': 6.0, 'V': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Na', 'O', 'P', 'V')\",OTHERS,False\nmvc-10706,\"{'Mg': 1.0, 'Sb': 4.0, 'O': 8.0}\",\"('Mg', 'O', 'Sb')\",OTHERS,False\nmp-865174,\"{'Hf': 1.0, 'Cd': 1.0, 'Rh': 2.0}\",\"('Cd', 'Hf', 'Rh')\",OTHERS,False\nmp-675307,\"{'Fe': 10.0, 'Ni': 14.0, 'S': 32.0}\",\"('Fe', 'Ni', 'S')\",OTHERS,False\nmp-867993,\"{'V': 12.0, 'Co': 4.0, 'O': 32.0}\",\"('Co', 'O', 'V')\",OTHERS,False\nmvc-8797,\"{'Ca': 1.0, 'Sn': 4.0, 'O': 8.0}\",\"('Ca', 'O', 'Sn')\",OTHERS,False\nmp-557309,\"{'Na': 6.0, 'Li': 2.0, 'W': 2.0, 'O': 10.0}\",\"('Li', 'Na', 'O', 'W')\",OTHERS,False\nmp-1220427,\"{'Nb': 6.0, 'Ag': 1.0, 'Se': 8.0}\",\"('Ag', 'Nb', 'Se')\",OTHERS,False\nmp-1198112,\"{'Nb': 16.0, 'P': 16.0, 'Cl': 96.0, 'O': 32.0}\",\"('Cl', 'Nb', 'O', 'P')\",OTHERS,False\nmp-1195102,\"{'Rb': 8.0, 'Ag': 40.0, 'P': 16.0, 'S': 64.0}\",\"('Ag', 'P', 'Rb', 'S')\",OTHERS,False\nmvc-7422,\"{'Mg': 8.0, 'Ti': 8.0, 'Bi': 8.0, 'O': 40.0}\",\"('Bi', 'Mg', 'O', 'Ti')\",OTHERS,False\nmp-867328,\"{'K': 2.0, 'Y': 2.0, 'Si': 2.0, 'S': 8.0}\",\"('K', 'S', 'Si', 'Y')\",OTHERS,False\nmp-777110,\"{'Li': 32.0, 'Ti': 13.0, 'Cr': 3.0, 'O': 48.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-581963,\"{'K': 16.0, 'Hf': 12.0, 'Te': 68.0}\",\"('Hf', 'K', 'Te')\",OTHERS,False\nmp-979274,\"{'U': 1.0, 'Ag': 3.0}\",\"('Ag', 'U')\",OTHERS,False\nmp-772992,\"{'Li': 9.0, 'Fe': 3.0, 'W': 7.0, 'O': 28.0}\",\"('Fe', 'Li', 'O', 'W')\",OTHERS,False\nmp-866716,\"{'Rb': 4.0, 'Li': 4.0, 'H': 48.0, 'Se': 12.0, 'N': 16.0}\",\"('H', 'Li', 'N', 'Rb', 'Se')\",OTHERS,False\nmvc-9232,\"{'Zn': 4.0, 'Fe': 4.0, 'Bi': 4.0, 'O': 20.0}\",\"('Bi', 'Fe', 'O', 'Zn')\",OTHERS,False\nmp-770492,\"{'Li': 24.0, 'Mn': 11.0, 'Cr': 1.0, 'O': 36.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-757637,\"{'Li': 14.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1063280,\"{'La': 1.0, 'Hg': 2.0}\",\"('Hg', 'La')\",OTHERS,False\nmp-761246,\"{'Li': 4.0, 'Mn': 2.0, 'Fe': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-6246,\"{'C': 4.0, 'O': 12.0, 'F': 8.0, 'Ca': 8.0}\",\"('C', 'Ca', 'F', 'O')\",OTHERS,False\nmp-1192187,\"{'Na': 12.0, 'Tl': 12.0}\",\"('Na', 'Tl')\",OTHERS,False\nmp-31480,\"{'Ca': 12.0, 'Ga': 8.0, 'Pd': 8.0}\",\"('Ca', 'Ga', 'Pd')\",OTHERS,False\nmp-757837,\"{'Li': 4.0, 'Co': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,False\nmp-768418,\"{'Li': 12.0, 'Mn': 4.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-760024,\"{'Na': 4.0, 'Ti': 20.0, 'O': 40.0}\",\"('Na', 'O', 'Ti')\",OTHERS,False\nmp-694955,\"{'Na': 1.0, 'Li': 2.0, 'La': 3.0, 'Ti': 6.0, 'O': 18.0}\",\"('La', 'Li', 'Na', 'O', 'Ti')\",OTHERS,False\nmp-1016841,\"{'Hf': 1.0, 'Hg': 1.0, 'O': 3.0}\",\"('Hf', 'Hg', 'O')\",OTHERS,False\nmp-1102535,\"{'Pt': 1.0, 'C': 4.0, 'S': 2.0, 'I': 2.0, 'O': 2.0}\",\"('C', 'I', 'O', 'Pt', 'S')\",OTHERS,False\nmp-1184306,\"{'Eu': 1.0, 'Bi': 1.0, 'Pd': 2.0}\",\"('Bi', 'Eu', 'Pd')\",OTHERS,False\nmp-1195356,\"{'Ge': 8.0, 'Bi': 8.0, 'N': 8.0, 'O': 56.0}\",\"('Bi', 'Ge', 'N', 'O')\",OTHERS,False\nmp-1226325,\"{'Cr': 4.0, 'Cd': 1.0, 'Fe': 1.0, 'S': 8.0}\",\"('Cd', 'Cr', 'Fe', 'S')\",OTHERS,False\nmp-1112892,\"{'Cs': 2.0, 'In': 1.0, 'Bi': 1.0, 'Br': 6.0}\",\"('Bi', 'Br', 'Cs', 'In')\",OTHERS,False\nmp-17599,\"{'O': 12.0, 'Ca': 1.0, 'Cu': 3.0, 'Ge': 4.0}\",\"('Ca', 'Cu', 'Ge', 'O')\",OTHERS,False\nmp-708035,\"{'Na': 2.0, 'Zn': 2.0, 'H': 18.0, 'O': 12.0}\",\"('H', 'Na', 'O', 'Zn')\",OTHERS,False\nmp-23581,\"{'B': 14.0, 'O': 26.0, 'Cr': 6.0, 'Br': 2.0}\",\"('B', 'Br', 'Cr', 'O')\",OTHERS,False\nmp-772563,\"{'Li': 8.0, 'V': 4.0, 'O': 8.0, 'F': 12.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-1214142,\"{'Ca': 11.0, 'Si': 4.0, 'Cl': 1.0, 'O': 18.0}\",\"('Ca', 'Cl', 'O', 'Si')\",OTHERS,False\nmp-496,\"{'Si': 8.0, 'Sr': 4.0}\",\"('Si', 'Sr')\",OTHERS,False\nmp-753869,\"{'Li': 2.0, 'V': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1266944,\"{'Al': 2.0, 'Mo': 6.0, 'Se': 4.0, 'Cl': 2.0, 'O': 16.0}\",\"('Al', 'Cl', 'Mo', 'O', 'Se')\",OTHERS,False\nmp-1033843,\"{'Mg': 14.0, 'Cr': 1.0, 'Bi': 1.0, 'O': 16.0}\",\"('Bi', 'Cr', 'Mg', 'O')\",OTHERS,False\nmp-669554,\"{'Mn': 12.0, 'Si': 4.0, 'Ni': 8.0}\",\"('Mn', 'Ni', 'Si')\",OTHERS,False\nmp-1191291,\"{'Hg': 4.0, 'S': 2.0, 'Br': 8.0, 'N': 4.0, 'O': 6.0}\",\"('Br', 'Hg', 'N', 'O', 'S')\",OTHERS,False\nmp-1228072,\"{'Ba': 4.0, 'Ca': 1.0, 'Zr': 5.0, 'O': 15.0}\",\"('Ba', 'Ca', 'O', 'Zr')\",OTHERS,False\nmp-1228271,\"{'Ba': 8.0, 'Cu': 4.0, 'Hg': 4.0, 'O': 17.0}\",\"('Ba', 'Cu', 'Hg', 'O')\",OTHERS,False\nmp-1219237,\"{'Si': 4.0, 'Mo': 1.0, 'W': 1.0}\",\"('Mo', 'Si', 'W')\",OTHERS,False\nmp-1246099,\"{'Ca': 12.0, 'In': 8.0, 'N': 16.0}\",\"('Ca', 'In', 'N')\",OTHERS,False\nmp-1095433,\"{'Tm': 2.0, 'Ga': 8.0, 'Ni': 2.0}\",\"('Ga', 'Ni', 'Tm')\",OTHERS,False\nmp-1201686,\"{'Tl': 4.0, 'Mo': 6.0, 'Se': 2.0, 'O': 24.0}\",\"('Mo', 'O', 'Se', 'Tl')\",OTHERS,False\nmp-697818,\"{'Sr': 4.0, 'Pr': 4.0, 'Mn': 2.0, 'Cu': 2.0, 'O': 16.0}\",\"('Cu', 'Mn', 'O', 'Pr', 'Sr')\",OTHERS,False\nmp-1198628,\"{'Na': 12.0, 'Ru': 4.0, 'O': 16.0}\",\"('Na', 'O', 'Ru')\",OTHERS,False\nmp-762239,\"{'Mn': 2.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Mn', 'O')\",OTHERS,False\nmp-1105173,\"{'Li': 4.0, 'Fe': 2.0, 'Sn': 2.0, 'S': 8.0}\",\"('Fe', 'Li', 'S', 'Sn')\",OTHERS,False\nmp-1143551,\"{'Si': 12.0, 'W': 8.0, 'O': 48.0}\",\"('O', 'Si', 'W')\",OTHERS,False\nmp-27181,\"{'Cl': 16.0, 'K': 4.0, 'Au': 4.0}\",\"('Au', 'Cl', 'K')\",OTHERS,False\nmp-568646,\"{'Ta': 24.0, 'Si': 8.0}\",\"('Si', 'Ta')\",OTHERS,False\nmp-1227655,\"{'Ce': 4.0, 'V': 2.0, 'Co': 32.0}\",\"('Ce', 'Co', 'V')\",OTHERS,False\nmp-1084749,\"{'Ti': 1.0, 'Zn': 1.0, 'Bi': 2.0, 'O': 6.0}\",\"('Bi', 'O', 'Ti', 'Zn')\",OTHERS,False\nmp-676095,\"{'Na': 3.0, 'Pr': 5.0, 'Cl': 18.0}\",\"('Cl', 'Na', 'Pr')\",OTHERS,False\nmp-1036771,\"{'Mg': 30.0, 'V': 1.0, 'Sn': 1.0, 'O': 32.0}\",\"('Mg', 'O', 'Sn', 'V')\",OTHERS,False\nmp-1188091,\"{'Ce': 4.0, 'Ge': 10.0, 'Ir': 6.0}\",\"('Ce', 'Ge', 'Ir')\",OTHERS,False\nmp-8180,\"{'Li': 2.0, 'N': 2.0, 'O': 6.0}\",\"('Li', 'N', 'O')\",OTHERS,False\nmp-553924,\"{'Ag': 16.0, 'P': 4.0, 'I': 4.0, 'O': 16.0}\",\"('Ag', 'I', 'O', 'P')\",OTHERS,False\nmp-1185571,\"{'Cs': 2.0, 'As': 2.0, 'H': 4.0, 'O': 8.0}\",\"('As', 'Cs', 'H', 'O')\",OTHERS,False\nmp-1079086,\"{'U': 3.0, 'Al': 3.0, 'Ni': 3.0}\",\"('Al', 'Ni', 'U')\",OTHERS,False\nmp-770773,\"{'Rb': 8.0, 'S': 8.0, 'O': 28.0}\",\"('O', 'Rb', 'S')\",OTHERS,False\nmp-1174181,\"{'Li': 6.0, 'Co': 4.0, 'O': 10.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1006888,\"{'K': 1.0, 'Y': 1.0, 'S': 2.0}\",\"('K', 'S', 'Y')\",OTHERS,False\nmvc-6200,\"{'Ca': 6.0, 'Ti': 6.0, 'As': 8.0, 'O': 32.0}\",\"('As', 'Ca', 'O', 'Ti')\",OTHERS,False\nmp-560084,\"{'Ni': 4.0, 'As': 8.0, 'S': 24.0, 'N': 16.0, 'O': 32.0, 'F': 64.0}\",\"('As', 'F', 'N', 'Ni', 'O', 'S')\",OTHERS,False\nmp-1218778,\"{'Sr': 8.0, 'Li': 4.0, 'Si': 4.0, 'N': 12.0}\",\"('Li', 'N', 'Si', 'Sr')\",OTHERS,False\nmp-10739,\"{'P': 3.0, 'Ti': 3.0, 'Ru': 3.0}\",\"('P', 'Ru', 'Ti')\",OTHERS,False\nmp-772810,\"{'V': 4.0, 'Sb': 2.0, 'P': 6.0, 'O': 24.0}\",\"('O', 'P', 'Sb', 'V')\",OTHERS,False\nmp-720245,\"{'Cs': 2.0, 'K': 2.0, 'Na': 2.0, 'Li': 26.0, 'Si': 8.0, 'O': 32.0}\",\"('Cs', 'K', 'Li', 'Na', 'O', 'Si')\",OTHERS,False\nmp-754578,\"{'Tm': 4.0, 'Ga': 4.0, 'O': 12.0}\",\"('Ga', 'O', 'Tm')\",OTHERS,False\nmp-17894,\"{'P': 4.0, 'S': 16.0, 'Rb': 6.0, 'Sm': 2.0}\",\"('P', 'Rb', 'S', 'Sm')\",OTHERS,False\nmp-1232089,\"{'Tm': 16.0, 'Mg': 8.0, 'Se': 32.0}\",\"('Mg', 'Se', 'Tm')\",OTHERS,False\nmp-1216070,\"{'Y': 2.0, 'Mn': 3.0, 'Co': 1.0}\",\"('Co', 'Mn', 'Y')\",OTHERS,False\nmp-557704,\"{'Tl': 9.0, 'N': 9.0, 'O': 27.0}\",\"('N', 'O', 'Tl')\",OTHERS,False\nmp-6873,\"{'O': 8.0, 'F': 2.0, 'Al': 2.0, 'Si': 2.0, 'Ca': 2.0}\",\"('Al', 'Ca', 'F', 'O', 'Si')\",OTHERS,False\nmp-554023,\"{'Be': 4.0, 'B': 2.0, 'O': 6.0, 'F': 2.0}\",\"('B', 'Be', 'F', 'O')\",OTHERS,False\nmp-772513,\"{'Li': 4.0, 'Cr': 12.0, 'O': 32.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-865629,\"{'Li': 2.0, 'Ce': 1.0, 'Al': 1.0}\",\"('Al', 'Ce', 'Li')\",OTHERS,False\nmp-1009007,\"{'Lu': 1.0, 'Sb': 1.0}\",\"('Lu', 'Sb')\",OTHERS,False\nmp-552131,\"{'Cl': 2.0, 'O': 4.0, 'Cs': 2.0}\",\"('Cl', 'Cs', 'O')\",OTHERS,False\nmp-1227047,\"{'Ca': 1.0, 'Yb': 3.0}\",\"('Ca', 'Yb')\",OTHERS,False\nmp-1201292,\"{'K': 8.0, 'Zr': 4.0, 'Si': 12.0, 'O': 40.0}\",\"('K', 'O', 'Si', 'Zr')\",OTHERS,False\nmp-1216314,\"{'V': 1.0, 'Ni': 3.0}\",\"('Ni', 'V')\",OTHERS,False\nmp-1247339,\"{'Ba': 12.0, 'Mo': 8.0, 'N': 16.0}\",\"('Ba', 'Mo', 'N')\",OTHERS,False\nmp-1201907,\"{'Ba': 20.0, 'Hg': 103.0}\",\"('Ba', 'Hg')\",OTHERS,False\nmp-20550,\"{'C': 1.0, 'Ce': 3.0, 'Pb': 1.0}\",\"('C', 'Ce', 'Pb')\",OTHERS,False\nmp-1223187,\"{'La': 6.0, 'Co': 1.0, 'Si': 2.0, 'S': 14.0}\",\"('Co', 'La', 'S', 'Si')\",OTHERS,False\nmp-1018732,\"{'Ho': 2.0, 'Te': 4.0}\",\"('Ho', 'Te')\",OTHERS,False\nmp-1225908,\"{'Cs': 1.0, 'Ti': 3.0, 'Al': 1.0, 'O': 8.0}\",\"('Al', 'Cs', 'O', 'Ti')\",OTHERS,False\nmp-2556,\"{'Sn': 1.0, 'Tl': 1.0}\",\"('Sn', 'Tl')\",OTHERS,False\nmp-1224342,\"{'Hf': 1.0, 'Sc': 3.0, 'Si': 8.0}\",\"('Hf', 'Sc', 'Si')\",OTHERS,False\nmp-1078473,\"{'Mn': 2.0, 'C': 2.0, 'O': 6.0}\",\"('C', 'Mn', 'O')\",OTHERS,False\nmp-570245,\"{'Ba': 4.0, 'Ga': 2.0, 'Ge': 2.0, 'N': 2.0}\",\"('Ba', 'Ga', 'Ge', 'N')\",OTHERS,False\nmp-28431,\"{'I': 4.0, 'Sb': 2.0, 'F': 12.0}\",\"('F', 'I', 'Sb')\",OTHERS,False\nmp-1096004,\"{'Hf': 2.0, 'Nb': 1.0, 'In': 1.0}\",\"('Hf', 'In', 'Nb')\",OTHERS,False\nmp-1111122,\"{'K': 2.0, 'Y': 1.0, 'Tl': 1.0, 'F': 6.0}\",\"('F', 'K', 'Tl', 'Y')\",OTHERS,False\nmp-754333,\"{'Ti': 2.0, 'O': 2.0}\",\"('O', 'Ti')\",OTHERS,False\nmp-1192761,\"{'Cs': 8.0, 'Hg': 4.0, 'Cl': 16.0}\",\"('Cl', 'Cs', 'Hg')\",OTHERS,False\nmp-1225182,\"{'Gd': 4.0, 'Nb': 2.0, 'Ga': 2.0, 'O': 14.0}\",\"('Ga', 'Gd', 'Nb', 'O')\",OTHERS,False\nmp-21819,\"{'P': 19.0, 'Cr': 30.0, 'U': 2.0}\",\"('Cr', 'P', 'U')\",OTHERS,False\nmp-1059160,\"{'Br': 1.0, 'N': 1.0}\",\"('Br', 'N')\",OTHERS,False\nmp-1103670,\"{'Tb': 4.0, 'Ga': 4.0, 'Ni': 4.0}\",\"('Ga', 'Ni', 'Tb')\",OTHERS,False\nmp-556562,\"{'Li': 2.0, 'As': 2.0, 'H': 12.0, 'O': 6.0, 'F': 12.0}\",\"('As', 'F', 'H', 'Li', 'O')\",OTHERS,False\nmp-1039188,\"{'Mg': 2.0, 'Bi': 2.0}\",\"('Bi', 'Mg')\",OTHERS,False\nmp-1096899,\"{'Cr': 4.0, 'N': 8.0}\",\"('Cr', 'N')\",OTHERS,False\nmp-1245841,\"{'K': 12.0, 'Mo': 2.0, 'N': 8.0}\",\"('K', 'Mo', 'N')\",OTHERS,False\nmvc-6139,\"{'Zn': 2.0, 'Ni': 4.0, 'O': 8.0}\",\"('Ni', 'O', 'Zn')\",OTHERS,False\nmp-1221104,\"{'Na': 2.0, 'Ca': 2.0, 'Al': 2.0, 'Si': 4.0, 'O': 14.0}\",\"('Al', 'Ca', 'Na', 'O', 'Si')\",OTHERS,False\nmp-770555,\"{'Mn': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Mn', 'O', 'P')\",OTHERS,False\nmvc-8355,\"{'Ca': 2.0, 'Co': 2.0, 'Ge': 4.0, 'O': 12.0}\",\"('Ca', 'Co', 'Ge', 'O')\",OTHERS,False\nmp-1245831,\"{'Ba': 6.0, 'Sc': 2.0, 'N': 6.0}\",\"('Ba', 'N', 'Sc')\",OTHERS,False\nmp-1030853,\"{'Rb': 1.0, 'Mg': 6.0, 'Si': 1.0, 'O': 8.0}\",\"('Mg', 'O', 'Rb', 'Si')\",OTHERS,False\nmp-558712,\"{'Ag': 8.0, 'Bi': 4.0, 'O': 12.0}\",\"('Ag', 'Bi', 'O')\",OTHERS,False\nmp-1196766,\"{'Ce': 2.0, 'Ni': 4.0, 'N': 34.0, 'O': 48.0}\",\"('Ce', 'N', 'Ni', 'O')\",OTHERS,False\nmp-1213621,\"{'Dy': 4.0, 'H': 52.0, 'C': 32.0, 'N': 24.0, 'O': 52.0}\",\"('C', 'Dy', 'H', 'N', 'O')\",OTHERS,False\nmp-1200692,\"{'Si': 17.0, 'C': 17.0}\",\"('C', 'Si')\",OTHERS,False\nmp-1185311,\"{'Li': 1.0, 'Cr': 1.0, 'O': 3.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-556202,\"{'Cu': 2.0, 'C': 8.0, 'O': 8.0}\",\"('C', 'Cu', 'O')\",OTHERS,False\nmp-1093705,\"{'K': 2.0, 'Hg': 1.0, 'Se': 1.0}\",\"('Hg', 'K', 'Se')\",OTHERS,False\nmp-757023,\"{'V': 4.0, 'Cr': 4.0, 'O': 12.0}\",\"('Cr', 'O', 'V')\",OTHERS,False\nmp-760026,\"{'Li': 6.0, 'Mn': 5.0, 'Sb': 1.0, 'O': 12.0}\",\"('Li', 'Mn', 'O', 'Sb')\",OTHERS,False\nmp-1238525,\"{'Al': 4.0, 'S': 8.0, 'N': 4.0, 'O': 80.0}\",\"('Al', 'N', 'O', 'S')\",OTHERS,False\nmp-25359,\"{'O': 32.0, 'P': 6.0, 'Mo': 6.0}\",\"('Mo', 'O', 'P')\",OTHERS,False\nmp-16852,\"{'Ni': 6.0, 'Ga': 14.0}\",\"('Ga', 'Ni')\",OTHERS,False\nmp-744260,\"{'Li': 8.0, 'La': 8.0, 'Mo': 16.0, 'O': 64.0}\",\"('La', 'Li', 'Mo', 'O')\",OTHERS,False\nmp-1219975,\"{'Rb': 8.0, 'Mo': 12.0, 'O': 44.0}\",\"('Mo', 'O', 'Rb')\",OTHERS,False\nmp-1018941,\"{'Pr': 2.0, 'Te': 2.0, 'Cl': 2.0}\",\"('Cl', 'Pr', 'Te')\",OTHERS,False\nmp-1253012,\"{'Al': 8.0, 'Fe': 6.0, 'O': 24.0}\",\"('Al', 'Fe', 'O')\",OTHERS,False\nmp-1507,\"{'Te': 2.0, 'Hg': 2.0}\",\"('Hg', 'Te')\",OTHERS,False\nmvc-6155,\"{'Ti': 6.0, 'As': 8.0, 'O': 32.0}\",\"('As', 'O', 'Ti')\",OTHERS,False\nmp-1076878,\"{'La': 28.0, 'Sm': 4.0, 'V': 32.0, 'O': 80.0}\",\"('La', 'O', 'Sm', 'V')\",OTHERS,False\nmp-1200699,\"{'P': 8.0, 'O': 12.0, 'F': 16.0}\",\"('F', 'O', 'P')\",OTHERS,False\nmp-766885,\"{'Sb': 18.0, 'P': 6.0, 'O': 42.0}\",\"('O', 'P', 'Sb')\",OTHERS,False\nmp-973433,\"{'Lu': 1.0, 'Sc': 1.0, 'Ru': 2.0}\",\"('Lu', 'Ru', 'Sc')\",OTHERS,False\nmp-103,{'Hf': 2.0},\"('Hf',)\",OTHERS,False\nmp-1238169,\"{'Hg': 12.0, 'H': 16.0, 'I': 8.0, 'O': 48.0}\",\"('H', 'Hg', 'I', 'O')\",OTHERS,False\nmp-556697,\"{'Ca': 2.0, 'Ta': 4.0, 'Bi': 4.0, 'O': 18.0}\",\"('Bi', 'Ca', 'O', 'Ta')\",OTHERS,False\nmp-1019052,\"{'Re': 3.0, 'N': 3.0}\",\"('N', 'Re')\",OTHERS,False\nmp-1213132,\"{'Er': 4.0, 'Mg': 4.0, 'B': 20.0, 'O': 40.0}\",\"('B', 'Er', 'Mg', 'O')\",OTHERS,False\nmp-567969,\"{'Ho': 1.0, 'B': 2.0, 'Rh': 2.0, 'C': 1.0}\",\"('B', 'C', 'Ho', 'Rh')\",OTHERS,False\nmp-705520,\"{'Sn': 12.0, 'H': 16.0, 'N': 8.0, 'O': 40.0}\",\"('H', 'N', 'O', 'Sn')\",OTHERS,False\nmp-1075152,\"{'Mg': 6.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-13941,\"{'O': 6.0, 'Sr': 2.0, 'Yb': 1.0, 'Re': 1.0}\",\"('O', 'Re', 'Sr', 'Yb')\",OTHERS,False\nmp-510659,\"{'Ag': 4.0, 'Cu': 4.0, 'V': 4.0, 'O': 16.0}\",\"('Ag', 'Cu', 'O', 'V')\",OTHERS,False\nmp-7343,\"{'Y': 12.0, 'Pt': 4.0}\",\"('Pt', 'Y')\",OTHERS,False\nmp-706241,\"{'Rb': 8.0, 'W': 13.0, 'O': 43.0}\",\"('O', 'Rb', 'W')\",OTHERS,False\nmp-3345,\"{'S': 8.0, 'Cu': 6.0, 'As': 2.0}\",\"('As', 'Cu', 'S')\",OTHERS,False\nmp-10636,\"{'Sr': 2.0, 'Sb': 4.0}\",\"('Sb', 'Sr')\",OTHERS,False\nmp-770547,\"{'Mn': 8.0, 'P': 4.0, 'O': 20.0}\",\"('Mn', 'O', 'P')\",OTHERS,False\nmp-1019610,\"{'Cs': 16.0, 'Mg': 8.0, 'Si': 40.0, 'O': 96.0}\",\"('Cs', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1196867,\"{'La': 8.0, 'N': 24.0}\",\"('La', 'N')\",OTHERS,False\nmp-559938,\"{'Li': 2.0, 'V': 6.0, 'Te': 4.0, 'O': 24.0}\",\"('Li', 'O', 'Te', 'V')\",OTHERS,False\nmp-505682,\"{'Dy': 24.0, 'Te': 12.0}\",\"('Dy', 'Te')\",OTHERS,False\nmp-31763,\"{'O': 12.0, 'Ca': 4.0, 'Fe': 2.0, 'Re': 2.0}\",\"('Ca', 'Fe', 'O', 'Re')\",OTHERS,False\nmp-1191401,\"{'Hf': 8.0, 'Fe': 16.0}\",\"('Fe', 'Hf')\",OTHERS,False\nmp-560879,\"{'C': 4.0, 'S': 8.0, 'N': 12.0, 'Cl': 12.0}\",\"('C', 'Cl', 'N', 'S')\",OTHERS,False\nmp-972869,\"{'Sc': 2.0, 'Ga': 1.0, 'Pt': 1.0}\",\"('Ga', 'Pt', 'Sc')\",OTHERS,False\nmp-1203456,\"{'Hg': 2.0, 'H': 32.0, 'Br': 12.0, 'N': 8.0}\",\"('Br', 'H', 'Hg', 'N')\",OTHERS,False\nmvc-5646,\"{'Ti': 2.0, 'Zn': 4.0, 'Ir': 2.0, 'O': 12.0}\",\"('Ir', 'O', 'Ti', 'Zn')\",OTHERS,False\nmp-775268,\"{'Li': 8.0, 'Mn': 7.0, 'Fe': 1.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1180695,\"{'Rb': 24.0, 'V': 8.0, 'O': 64.0}\",\"('O', 'Rb', 'V')\",OTHERS,False\nmp-1205898,\"{'Sc': 6.0, 'Te': 2.0, 'Ru': 1.0}\",\"('Ru', 'Sc', 'Te')\",OTHERS,False\nmp-763417,\"{'Co': 6.0, 'O': 2.0, 'F': 10.0}\",\"('Co', 'F', 'O')\",OTHERS,False\nmp-1221769,\"{'Mn': 8.0, 'B': 2.0}\",\"('B', 'Mn')\",OTHERS,False\nmp-568069,\"{'Ti': 4.0, 'Bi': 2.0}\",\"('Bi', 'Ti')\",OTHERS,False\nmp-1223482,\"{'Li': 6.0, 'Mo': 30.0, 'Se': 38.0}\",\"('Li', 'Mo', 'Se')\",OTHERS,False\nmp-1099867,\"{'K': 2.0, 'Na': 6.0, 'V': 4.0, 'Mo': 4.0, 'O': 24.0}\",\"('K', 'Mo', 'Na', 'O', 'V')\",OTHERS,False\nmp-16517,\"{'Al': 4.0, 'Ni': 2.0, 'Tm': 2.0}\",\"('Al', 'Ni', 'Tm')\",OTHERS,False\nmp-531051,\"{'Ca': 16.0, 'Nb': 8.0, 'O': 36.0}\",\"('Ca', 'Nb', 'O')\",OTHERS,False\nmp-773026,\"{'Ti': 12.0, 'Fe': 5.0, 'O': 32.0}\",\"('Fe', 'O', 'Ti')\",OTHERS,False\nmp-1086664,\"{'Rb': 1.0, 'Cd': 4.0, 'As': 3.0}\",\"('As', 'Cd', 'Rb')\",OTHERS,False\nmp-27479,\"{'O': 36.0, 'Pr': 8.0, 'W': 8.0}\",\"('O', 'Pr', 'W')\",OTHERS,False\nmp-1175629,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1210353,\"{'Na': 8.0, 'Al': 6.0, 'Si': 6.0, 'S': 2.0, 'O': 32.0}\",\"('Al', 'Na', 'O', 'S', 'Si')\",OTHERS,False\nmp-1210174,\"{'Nb': 8.0, 'Co': 8.0, 'Si': 12.0}\",\"('Co', 'Nb', 'Si')\",OTHERS,False\nmp-1224049,\"{'K': 6.0, 'H': 2.0, 'Se': 4.0, 'O': 16.0}\",\"('H', 'K', 'O', 'Se')\",OTHERS,False\nmp-1189619,\"{'Eu': 10.0, 'Al': 10.0}\",\"('Al', 'Eu')\",OTHERS,False\nmp-505248,\"{'Cr': 2.0, 'Rb': 6.0, 'O': 12.0, 'H': 12.0}\",\"('Cr', 'H', 'O', 'Rb')\",OTHERS,False\nmp-13274,\"{'C': 1.0, 'O': 4.0, 'Na': 4.0}\",\"('C', 'Na', 'O')\",OTHERS,False\nmp-864949,\"{'Mn': 1.0, 'Ga': 1.0, 'Rh': 2.0}\",\"('Ga', 'Mn', 'Rh')\",OTHERS,False\nmp-1214720,\"{'Ba': 2.0, 'Gd': 1.0, 'Cu': 4.0, 'O': 8.0}\",\"('Ba', 'Cu', 'Gd', 'O')\",OTHERS,False\nmp-1198331,\"{'Rb': 16.0, 'Li': 4.0, 'H': 12.0, 'S': 16.0, 'O': 64.0}\",\"('H', 'Li', 'O', 'Rb', 'S')\",OTHERS,False\nmp-1177172,\"{'Li': 8.0, 'V': 10.0, 'Cr': 8.0, 'O': 36.0}\",\"('Cr', 'Li', 'O', 'V')\",OTHERS,False\nmp-695254,\"{'Ca': 10.0, 'La': 6.0, 'Mg': 3.0, 'Ti': 13.0, 'O': 48.0}\",\"('Ca', 'La', 'Mg', 'O', 'Ti')\",OTHERS,False\nmp-1228048,\"{'Ba': 4.0, 'Ta': 2.0, 'Ti': 1.0, 'Zn': 1.0, 'O': 12.0}\",\"('Ba', 'O', 'Ta', 'Ti', 'Zn')\",OTHERS,False\nmp-7386,\"{'F': 8.0, 'Na': 2.0, 'Ag': 2.0}\",\"('Ag', 'F', 'Na')\",OTHERS,False\nmp-978785,\"{'Si': 16.0, 'Mo': 4.0, 'Pt': 12.0}\",\"('Mo', 'Pt', 'Si')\",OTHERS,False\nmp-763763,\"{'Li': 4.0, 'Cr': 3.0, 'Fe': 2.0, 'Co': 3.0, 'O': 16.0}\",\"('Co', 'Cr', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-758488,\"{'Li': 2.0, 'P': 6.0, 'W': 4.0, 'O': 26.0}\",\"('Li', 'O', 'P', 'W')\",OTHERS,False\nmp-3193,\"{'O': 20.0, 'Na': 8.0, 'Si': 8.0}\",\"('Na', 'O', 'Si')\",OTHERS,False\nmp-757655,\"{'Li': 17.0, 'Ni': 11.0, 'O': 28.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmp-1225167,\"{'Gd': 3.0, 'Y': 3.0, 'Fe': 23.0}\",\"('Fe', 'Gd', 'Y')\",OTHERS,False\nmp-867574,\"{'Li': 4.0, 'Mn': 8.0, 'Si': 8.0, 'O': 26.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-574176,\"{'Ba': 4.0, 'In': 8.0, 'Au': 8.0}\",\"('Au', 'Ba', 'In')\",OTHERS,False\nmp-1204738,\"{'Fe': 4.0, 'As': 8.0, 'S': 16.0, 'O': 32.0, 'F': 48.0}\",\"('As', 'F', 'Fe', 'O', 'S')\",OTHERS,False\nmp-631631,\"{'Mn': 5.0, 'V': 2.0, 'Pb': 3.0, 'O': 16.0}\",\"('Mn', 'O', 'Pb', 'V')\",OTHERS,False\nmp-1222471,\"{'Mg': 7.0, 'Ti': 1.0, 'Al': 6.0, 'Si': 8.0, 'H': 8.0, 'O': 38.0}\",\"('Al', 'H', 'Mg', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-561037,\"{'K': 8.0, 'U': 1.0, 'Cr': 4.0, 'N': 2.0, 'O': 24.0}\",\"('Cr', 'K', 'N', 'O', 'U')\",OTHERS,False\nmp-759405,\"{'Bi': 12.0, 'O': 8.0, 'F': 20.0}\",\"('Bi', 'F', 'O')\",OTHERS,False\nmp-569576,\"{'La': 20.0, 'Si': 12.0, 'N': 36.0}\",\"('La', 'N', 'Si')\",OTHERS,False\nmp-1106150,\"{'Ce': 1.0, 'Mn': 4.0, 'Cu': 3.0, 'O': 12.0}\",\"('Ce', 'Cu', 'Mn', 'O')\",OTHERS,False\nmp-770899,\"{'Li': 4.0, 'V': 6.0, 'O': 16.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-569456,\"{'Ti': 4.0, 'Hg': 24.0, 'As': 16.0, 'Br': 28.0}\",\"('As', 'Br', 'Hg', 'Ti')\",OTHERS,False\nmp-850091,\"{'Li': 9.0, 'Nb': 10.0, 'Cr': 6.0, 'P': 24.0, 'O': 96.0}\",\"('Cr', 'Li', 'Nb', 'O', 'P')\",OTHERS,False\nmp-18807,\"{'O': 7.0, 'V': 2.0, 'Zn': 2.0}\",\"('O', 'V', 'Zn')\",OTHERS,False\nmp-683975,\"{'Yb': 12.0, 'K': 24.0, 'P': 20.0, 'S': 80.0}\",\"('K', 'P', 'S', 'Yb')\",OTHERS,False\nmvc-16255,\"{'Ba': 1.0, 'Al': 1.0, 'Cu': 1.0, 'W': 1.0, 'O': 5.0}\",\"('Al', 'Ba', 'Cu', 'O', 'W')\",OTHERS,False\nmp-504876,\"{'Hg': 19.0, 'Br': 18.0, 'As': 10.0}\",\"('As', 'Br', 'Hg')\",OTHERS,False\nmp-1251156,\"{'Sr': 4.0, 'Al': 2.0, 'Cu': 6.0, 'O': 14.0}\",\"('Al', 'Cu', 'O', 'Sr')\",OTHERS,False\nmp-1187229,\"{'Sr': 1.0, 'La': 3.0}\",\"('La', 'Sr')\",OTHERS,False\nmp-8914,\"{'Ga': 4.0, 'Sr': 4.0, 'Sn': 4.0}\",\"('Ga', 'Sn', 'Sr')\",OTHERS,False\nmp-1208283,\"{'Ti': 10.0, 'Co': 2.0, 'Sn': 6.0}\",\"('Co', 'Sn', 'Ti')\",OTHERS,False\nmp-1104706,\"{'Na': 2.0, 'Ca': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Ca', 'Na', 'O', 'Si')\",OTHERS,False\nmp-777669,\"{'Li': 16.0, 'Fe': 8.0, 'F': 32.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-757690,\"{'Li': 2.0, 'Nb': 2.0, 'P': 8.0, 'O': 24.0}\",\"('Li', 'Nb', 'O', 'P')\",OTHERS,False\nmp-26005,\"{'Li': 2.0, 'O': 48.0, 'P': 14.0, 'Mn': 12.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-627,\"{'Se': 1.0, 'Np': 1.0}\",\"('Np', 'Se')\",OTHERS,False\nmp-3262,\"{'Si': 2.0, 'Co': 2.0, 'Tm': 1.0}\",\"('Co', 'Si', 'Tm')\",OTHERS,False\nmp-1195876,\"{'U': 8.0, 'B': 24.0, 'Mo': 4.0}\",\"('B', 'Mo', 'U')\",OTHERS,False\nmp-1186882,\"{'Rb': 3.0, 'Zr': 1.0}\",\"('Rb', 'Zr')\",OTHERS,False\nmp-1245820,\"{'Sr': 2.0, 'C': 14.0, 'N': 20.0}\",\"('C', 'N', 'Sr')\",OTHERS,False\nmp-1066655,\"{'K': 3.0, 'Rh': 1.0}\",\"('K', 'Rh')\",OTHERS,False\nmp-20433,\"{'Ti': 6.0, 'In': 8.0}\",\"('In', 'Ti')\",OTHERS,False\nmp-6121,\"{'O': 20.0, 'Zn': 4.0, 'Y': 8.0, 'Ba': 4.0}\",\"('Ba', 'O', 'Y', 'Zn')\",OTHERS,False\nmp-1027109,\"{'Mo': 3.0, 'W': 1.0, 'Se': 6.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-624762,\"{'Fe': 16.0, 'Te': 8.0, 'C': 44.0, 'O': 44.0}\",\"('C', 'Fe', 'O', 'Te')\",OTHERS,False\nmp-745021,\"{'Sr': 8.0, 'Mg': 8.0, 'V': 12.0, 'O': 56.0}\",\"('Mg', 'O', 'Sr', 'V')\",OTHERS,False\nmp-759173,\"{'Li': 1.0, 'V': 3.0, 'O': 8.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-19910,\"{'Mg': 2.0, 'Ni': 4.0, 'Ce': 4.0}\",\"('Ce', 'Mg', 'Ni')\",OTHERS,False\nmp-1112949,\"{'Cs': 3.0, 'Tl': 1.0, 'I': 6.0}\",\"('Cs', 'I', 'Tl')\",OTHERS,False\nmp-1111166,\"{'K': 3.0, 'Sb': 1.0, 'Br': 6.0}\",\"('Br', 'K', 'Sb')\",OTHERS,False\nmp-552623,\"{'O': 4.0, 'Na': 4.0, 'C': 1.0}\",\"('C', 'Na', 'O')\",OTHERS,False\nmp-1205678,\"{'Ho': 4.0, 'Mg': 2.0, 'Si': 4.0}\",\"('Ho', 'Mg', 'Si')\",OTHERS,False\nmp-776169,\"{'Li': 8.0, 'Mn': 4.0, 'F': 20.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-849764,\"{'H': 112.0, 'Pt': 8.0, 'Br': 20.0, 'N': 36.0, 'O': 8.0}\",\"('Br', 'H', 'N', 'O', 'Pt')\",OTHERS,False\nmvc-7907,\"{'Mg': 3.0, 'Ta': 6.0, 'Fe': 4.0, 'O': 24.0}\",\"('Fe', 'Mg', 'O', 'Ta')\",OTHERS,False\nmp-5014,\"{'S': 4.0, 'Cu': 4.0, 'Ag': 4.0}\",\"('Ag', 'Cu', 'S')\",OTHERS,False\nmp-974332,\"{'S': 3.0, 'Br': 1.0}\",\"('Br', 'S')\",OTHERS,False\nmp-1097379,\"{'Ti': 1.0, 'Nb': 2.0, 'Mo': 1.0}\",\"('Mo', 'Nb', 'Ti')\",OTHERS,False\nmp-676749,\"{'Li': 6.0, 'U': 3.0, 'Cl': 18.0}\",\"('Cl', 'Li', 'U')\",OTHERS,False\nmp-673703,\"{'Rb': 3.0, 'Bi': 7.0, 'Pb': 3.0, 'I': 10.0, 'O': 10.0}\",\"('Bi', 'I', 'O', 'Pb', 'Rb')\",OTHERS,False\nmp-757001,\"{'Y': 15.0, 'Tm': 1.0, 'O': 24.0}\",\"('O', 'Tm', 'Y')\",OTHERS,False\nmp-1013549,\"{'Ba': 3.0, 'Bi': 1.0, 'N': 1.0}\",\"('Ba', 'Bi', 'N')\",OTHERS,False\nmp-1232160,\"{'Tb': 4.0, 'Mg': 4.0, 'S': 12.0}\",\"('Mg', 'S', 'Tb')\",OTHERS,False\nmp-559642,\"{'Ca': 2.0, 'Zr': 2.0, 'Al': 18.0, 'B': 2.0, 'O': 36.0}\",\"('Al', 'B', 'Ca', 'O', 'Zr')\",OTHERS,False\nmp-1183505,\"{'Bi': 6.0, 'As': 2.0}\",\"('As', 'Bi')\",OTHERS,False\nmp-1186550,\"{'Pm': 1.0, 'Cd': 1.0, 'Cu': 2.0}\",\"('Cd', 'Cu', 'Pm')\",OTHERS,False\nmp-1204045,\"{'U': 4.0, 'Fe': 30.0, 'Ge': 4.0}\",\"('Fe', 'Ge', 'U')\",OTHERS,False\nmp-640286,\"{'Ce': 4.0, 'Cu': 16.0, 'Sn': 4.0}\",\"('Ce', 'Cu', 'Sn')\",OTHERS,False\nmp-1097589,\"{'Ta': 1.0, 'V': 1.0, 'Mo': 2.0}\",\"('Mo', 'Ta', 'V')\",OTHERS,False\nmp-1100379,\"{'Ca': 12.0, 'Sn': 12.0, 'S': 36.0}\",\"('Ca', 'S', 'Sn')\",OTHERS,False\nmp-30820,\"{'Li': 2.0, 'Al': 1.0, 'Rh': 1.0}\",\"('Al', 'Li', 'Rh')\",OTHERS,False\nmp-22903,\"{'Rb': 1.0, 'I': 1.0}\",\"('I', 'Rb')\",OTHERS,False\nmp-510607,\"{'Sr': 4.0, 'Cr': 4.0, 'O': 16.0}\",\"('Cr', 'O', 'Sr')\",OTHERS,False\nmp-10193,\"{'P': 1.0, 'Lu': 1.0, 'Pt': 1.0}\",\"('Lu', 'P', 'Pt')\",OTHERS,False\nmp-31049,\"{'O': 4.0, 'Nd': 2.0}\",\"('Nd', 'O')\",OTHERS,False\nmp-768225,\"{'Cu': 4.0, 'Ni': 2.0, 'O': 8.0}\",\"('Cu', 'Ni', 'O')\",OTHERS,False\nmp-772825,\"{'Ta': 8.0, 'Be': 4.0, 'O': 24.0}\",\"('Be', 'O', 'Ta')\",OTHERS,False\nmp-1027112,\"{'Mo': 1.0, 'W': 3.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-416,\"{'Cr': 6.0, 'Os': 2.0}\",\"('Cr', 'Os')\",OTHERS,False\nmp-754992,\"{'Lu': 1.0, 'Tl': 1.0, 'O': 2.0}\",\"('Lu', 'O', 'Tl')\",OTHERS,False\nmp-1194289,\"{'Ga': 2.0, 'Co': 21.0, 'B': 6.0}\",\"('B', 'Co', 'Ga')\",OTHERS,False\nmp-865343,\"{'Tm': 2.0, 'Ir': 1.0, 'Os': 1.0}\",\"('Ir', 'Os', 'Tm')\",OTHERS,False\nmp-1995,\"{'C': 2.0, 'Pr': 1.0}\",\"('C', 'Pr')\",OTHERS,False\nmp-22958,\"{'O': 3.0, 'K': 1.0, 'Br': 1.0}\",\"('Br', 'K', 'O')\",OTHERS,False\nmp-1203528,\"{'K': 8.0, 'Ba': 2.0, 'V': 12.0, 'O': 36.0}\",\"('Ba', 'K', 'O', 'V')\",OTHERS,False\nmp-1245213,\"{'Zn': 50.0, 'S': 50.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-1222070,\"{'Mg': 1.0, 'Ti': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Mg', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1037934,\"{'Ca': 1.0, 'Mg': 30.0, 'Cd': 1.0, 'O': 32.0}\",\"('Ca', 'Cd', 'Mg', 'O')\",OTHERS,False\nmp-4991,\"{'O': 14.0, 'Sn': 4.0, 'Tb': 4.0}\",\"('O', 'Sn', 'Tb')\",OTHERS,False\nmp-505824,\"{'Cs': 2.0, 'Pd': 1.0, 'C': 2.0}\",\"('C', 'Cs', 'Pd')\",OTHERS,False\nmp-662527,\"{'Ce': 8.0, 'Si': 8.0, 'O': 28.0}\",\"('Ce', 'O', 'Si')\",OTHERS,False\nmp-542566,\"{'Pr': 6.0, 'Pd': 12.0, 'Sb': 10.0}\",\"('Pd', 'Pr', 'Sb')\",OTHERS,False\nmp-1228668,\"{'Ba': 2.0, 'Cu': 3.0, 'O': 6.0}\",\"('Ba', 'Cu', 'O')\",OTHERS,False\nmp-1187370,\"{'Tb': 1.0, 'Pm': 1.0, 'Ir': 2.0}\",\"('Ir', 'Pm', 'Tb')\",OTHERS,False\nmp-754919,\"{'V': 2.0, 'O': 2.0, 'F': 6.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-1221791,\"{'Mn': 2.0, 'Sb': 2.0, 'Pt': 1.0, 'Au': 1.0}\",\"('Au', 'Mn', 'Pt', 'Sb')\",OTHERS,False\nmp-1147685,\"{'Li': 20.0, 'Zn': 2.0, 'P': 8.0, 'S': 32.0}\",\"('Li', 'P', 'S', 'Zn')\",OTHERS,False\nmp-19108,\"{'Ca': 4.0, 'Mn': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Ca', 'Mn', 'O', 'W')\",OTHERS,False\nmp-29982,\"{'B': 6.0, 'C': 3.0, 'Nb': 7.0}\",\"('B', 'C', 'Nb')\",OTHERS,False\nmvc-16311,\"{'Y': 1.0, 'Sb': 1.0, 'W': 2.0, 'O': 8.0}\",\"('O', 'Sb', 'W', 'Y')\",OTHERS,False\nmp-1187312,\"{'Tb': 1.0, 'As': 3.0}\",\"('As', 'Tb')\",OTHERS,False\nmp-1106223,\"{'Nd': 4.0, 'Ge': 8.0, 'Pt': 4.0}\",\"('Ge', 'Nd', 'Pt')\",OTHERS,False\nmp-1232246,\"{'Ce': 32.0, 'Mg': 16.0, 'S': 64.0}\",\"('Ce', 'Mg', 'S')\",OTHERS,False\nmp-1208599,\"{'Sr': 2.0, 'Li': 2.0, 'Ti': 2.0, 'F': 12.0}\",\"('F', 'Li', 'Sr', 'Ti')\",OTHERS,False\nmp-753127,\"{'Na': 3.0, 'Li': 4.0, 'Mn': 5.0, 'O': 9.0}\",\"('Li', 'Mn', 'Na', 'O')\",OTHERS,False\nmp-27276,\"{'Si': 12.0, 'Ni': 31.0}\",\"('Ni', 'Si')\",OTHERS,False\nmp-766414,\"{'Mn': 2.0, 'Fe': 6.0, 'P': 8.0, 'O': 32.0}\",\"('Fe', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1178773,\"{'Y': 10.0, 'Fe': 20.0}\",\"('Fe', 'Y')\",OTHERS,False\nmp-1247451,\"{'Mg': 6.0, 'Ga': 6.0, 'N': 10.0}\",\"('Ga', 'Mg', 'N')\",OTHERS,False\nmp-1278,\"{'Si': 2.0, 'Zr': 4.0}\",\"('Si', 'Zr')\",OTHERS,False\nmp-1227648,\"{'Ca': 1.0, 'In': 6.0, 'Cu': 6.0}\",\"('Ca', 'Cu', 'In')\",OTHERS,False\nmp-1056985,\"{'Ti': 1.0, 'Pd': 1.0}\",\"('Pd', 'Ti')\",OTHERS,False\nmp-1190582,\"{'Mg': 6.0, 'Nb': 1.0, 'H': 16.0}\",\"('H', 'Mg', 'Nb')\",OTHERS,False\nmp-1214524,\"{'Ba': 8.0, 'Dy': 2.0, 'Cu': 6.0, 'O': 18.0}\",\"('Ba', 'Cu', 'Dy', 'O')\",OTHERS,False\nmp-4068,\"{'Na': 8.0, 'S': 12.0, 'Ge': 4.0}\",\"('Ge', 'Na', 'S')\",OTHERS,False\nmp-771164,\"{'Na': 4.0, 'Mn': 2.0, 'B': 2.0, 'As': 2.0, 'O': 14.0}\",\"('As', 'B', 'Mn', 'Na', 'O')\",OTHERS,False\nmp-767576,\"{'Li': 12.0, 'Mn': 2.0, 'O': 8.0, 'F': 2.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-703595,\"{'Cd': 13.0, 'I': 28.0}\",\"('Cd', 'I')\",OTHERS,False\nmp-676552,\"{'Nd': 2.0, 'Th': 8.0, 'O': 19.0}\",\"('Nd', 'O', 'Th')\",OTHERS,False\nmp-510342,\"{'Dy': 4.0, 'Te': 8.0, 'O': 22.0}\",\"('Dy', 'O', 'Te')\",OTHERS,False\nmp-1215613,\"{'Yb': 7.0, 'Mg': 1.0, 'Pt': 4.0}\",\"('Mg', 'Pt', 'Yb')\",OTHERS,False\nmp-1190998,\"{'Pr': 8.0, 'P': 8.0, 'S': 8.0}\",\"('P', 'Pr', 'S')\",OTHERS,False\nmp-1207084,\"{'Al': 1.0, 'Ni': 3.0, 'C': 1.0}\",\"('Al', 'C', 'Ni')\",OTHERS,False\nmp-755470,\"{'Li': 2.0, 'Bi': 1.0, 'S': 2.0}\",\"('Bi', 'Li', 'S')\",OTHERS,False\nmp-756054,\"{'Zr': 8.0, 'N': 8.0, 'O': 4.0}\",\"('N', 'O', 'Zr')\",OTHERS,False\nmp-626467,\"{'Al': 8.0, 'H': 24.0, 'O': 24.0}\",\"('Al', 'H', 'O')\",OTHERS,False\nmp-1080178,\"{'Gd': 3.0, 'Zn': 3.0, 'Pd': 3.0}\",\"('Gd', 'Pd', 'Zn')\",OTHERS,False\nmp-1209792,\"{'Rb': 1.0, 'Cu': 2.0, 'O': 10.0}\",\"('Cu', 'O', 'Rb')\",OTHERS,False\nmp-601846,\"{'Yb': 2.0, 'In': 8.0, 'Ir': 1.0}\",\"('In', 'Ir', 'Yb')\",OTHERS,False\nmp-558775,\"{'Al': 6.0, 'Pb': 10.0, 'F': 38.0}\",\"('Al', 'F', 'Pb')\",OTHERS,False\nmp-972924,\"{'La': 1.0, 'Mg': 16.0, 'Al': 12.0}\",\"('Al', 'La', 'Mg')\",OTHERS,False\nmp-1176372,\"{'Na': 6.0, 'Mn': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Mn', 'Na', 'O', 'P')\",OTHERS,False\nmp-557463,\"{'Na': 12.0, 'Sc': 4.0, 'Si': 8.0, 'O': 28.0}\",\"('Na', 'O', 'Sc', 'Si')\",OTHERS,False\nmp-1094255,\"{'Zr': 6.0, 'Sn': 2.0}\",\"('Sn', 'Zr')\",OTHERS,False\nmp-865439,\"{'Th': 6.0, 'O': 4.0}\",\"('O', 'Th')\",OTHERS,False\nmp-1178904,\"{'V': 4.0, 'Cu': 2.0, 'P': 4.0, 'O': 30.0}\",\"('Cu', 'O', 'P', 'V')\",OTHERS,False\nmp-9351,\"{'Ge': 2.0, 'Lu': 2.0, 'Au': 2.0}\",\"('Au', 'Ge', 'Lu')\",OTHERS,False\nmp-565679,\"{'Hg': 16.0, 'Se': 16.0, 'O': 36.0}\",\"('Hg', 'O', 'Se')\",OTHERS,False\nmp-1187402,\"{'Th': 1.0, 'Al': 1.0, 'Cu': 2.0}\",\"('Al', 'Cu', 'Th')\",OTHERS,False\nmp-14017,\"{'K': 6.0, 'Sb': 2.0}\",\"('K', 'Sb')\",OTHERS,False\nmp-758528,\"{'Li': 6.0, 'Mn': 10.0, 'O': 4.0, 'F': 18.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-778474,\"{'Li': 12.0, 'Co': 4.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Co', 'Li', 'O')\",OTHERS,False\nmp-1179605,{'Sb': 2.0},\"('Sb',)\",OTHERS,False\nmp-29973,\"{'N': 4.0, 'Sr': 4.0}\",\"('N', 'Sr')\",OTHERS,False\nmp-1024968,\"{'Pu': 1.0, 'B': 2.0, 'Rh': 3.0}\",\"('B', 'Pu', 'Rh')\",OTHERS,False\nmp-8613,\"{'P': 2.0, 'S': 6.0, 'Mn': 2.0}\",\"('Mn', 'P', 'S')\",OTHERS,False\nmp-974364,\"{'Ru': 1.0, 'Au': 3.0}\",\"('Au', 'Ru')\",OTHERS,False\nmp-775876,\"{'Na': 2.0, 'Li': 2.0, 'Mn': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'Mn', 'Na', 'O', 'P')\",OTHERS,False\nmvc-15619,\"{'Mg': 4.0, 'Co': 2.0, 'Sb': 2.0, 'O': 12.0}\",\"('Co', 'Mg', 'O', 'Sb')\",OTHERS,False\nmp-1104601,\"{'Co': 1.0, 'N': 2.0, 'O': 10.0}\",\"('Co', 'N', 'O')\",OTHERS,False\nmp-673798,\"{'K': 6.0, 'Cl': 2.0, 'O': 2.0}\",\"('Cl', 'K', 'O')\",OTHERS,False\nmp-1095641,\"{'Tb': 5.0, 'S': 7.0}\",\"('S', 'Tb')\",OTHERS,False\nmp-1209090,\"{'Rb': 2.0, 'Tm': 2.0, 'Be': 2.0, 'F': 12.0}\",\"('Be', 'F', 'Rb', 'Tm')\",OTHERS,False\nmp-9721,\"{'O': 1.0, 'Ca': 3.0, 'Ge': 1.0}\",\"('Ca', 'Ge', 'O')\",OTHERS,False\nmp-32509,\"{'V': 2.0, 'P': 8.0, 'O': 24.0}\",\"('O', 'P', 'V')\",OTHERS,False\nmp-1070152,\"{'Ca': 1.0, 'Co': 2.0, 'Si': 2.0}\",\"('Ca', 'Co', 'Si')\",OTHERS,False\nmp-22588,\"{'O': 12.0, 'Fe': 4.0, 'Lu': 4.0}\",\"('Fe', 'Lu', 'O')\",OTHERS,False\nmp-1227199,\"{'Ca': 1.0, 'Pr': 3.0, 'Co': 4.0, 'O': 12.0}\",\"('Ca', 'Co', 'O', 'Pr')\",OTHERS,False\nmp-1187114,\"{'Sr': 3.0, 'Cr': 1.0}\",\"('Cr', 'Sr')\",OTHERS,False\nmp-1073927,\"{'Mg': 12.0, 'Si': 10.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1246426,\"{'Ge': 4.0, 'C': 4.0, 'N': 8.0}\",\"('C', 'Ge', 'N')\",OTHERS,False\nmp-6652,\"{'B': 6.0, 'O': 18.0, 'K': 2.0, 'Zn': 8.0}\",\"('B', 'K', 'O', 'Zn')\",OTHERS,False\nmp-867782,\"{'Mn': 2.0, 'O': 2.0, 'F': 2.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-14214,\"{'Si': 8.0, 'P': 32.0, 'Ba': 32.0}\",\"('Ba', 'P', 'Si')\",OTHERS,False\nmp-850284,\"{'Li': 4.0, 'Co': 2.0, 'O': 2.0, 'F': 6.0}\",\"('Co', 'F', 'Li', 'O')\",OTHERS,False\nmp-697264,\"{'Cd': 4.0, 'H': 8.0, 'Se': 4.0, 'O': 16.0}\",\"('Cd', 'H', 'O', 'Se')\",OTHERS,False\nmp-1188370,\"{'La': 6.0, 'Sn': 10.0}\",\"('La', 'Sn')\",OTHERS,False\nmp-1031330,\"{'K': 1.0, 'La': 1.0, 'Mg': 6.0, 'O': 8.0}\",\"('K', 'La', 'Mg', 'O')\",OTHERS,False\nmp-21974,\"{'O': 48.0, 'Fe': 20.0, 'Dy': 12.0}\",\"('Dy', 'Fe', 'O')\",OTHERS,False\nmp-1176791,\"{'Li': 18.0, 'Mn': 2.0, 'Si': 4.0, 'O': 20.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-705429,\"{'Li': 12.0, 'Co': 10.0, 'P': 16.0, 'O': 56.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,False\nmp-1214619,\"{'C': 40.0, 'Cl': 36.0, 'O': 2.0}\",\"('C', 'Cl', 'O')\",OTHERS,False\nmp-1105966,\"{'Gd': 8.0, 'Te': 12.0}\",\"('Gd', 'Te')\",OTHERS,False\nmp-1173997,\"{'Li': 5.0, 'Mn': 1.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-28473,\"{'C': 2.0, 'F': 6.0, 'Cl': 2.0}\",\"('C', 'Cl', 'F')\",OTHERS,False\nmp-1203464,\"{'Bi': 8.0, 'As': 4.0, 'O': 24.0}\",\"('As', 'Bi', 'O')\",OTHERS,False\nmp-1192255,\"{'Sm': 2.0, 'Mn': 3.0, 'Sb': 4.0, 'S': 12.0}\",\"('Mn', 'S', 'Sb', 'Sm')\",OTHERS,False\nmp-5391,\"{'O': 16.0, 'Mg': 8.0, 'Si': 4.0}\",\"('Mg', 'O', 'Si')\",OTHERS,False\nmp-1213756,\"{'Cr': 7.0, 'Te': 8.0}\",\"('Cr', 'Te')\",OTHERS,False\nmp-756866,\"{'Li': 2.0, 'Ti': 1.0, 'Mn': 3.0, 'O': 8.0}\",\"('Li', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-1224328,\"{'Hf': 1.0, 'Nb': 1.0, 'B': 4.0}\",\"('B', 'Hf', 'Nb')\",OTHERS,False\nmp-1205810,\"{'Eu': 2.0, 'Br': 6.0}\",\"('Br', 'Eu')\",OTHERS,False\nmp-1111564,\"{'Li': 2.0, 'Al': 1.0, 'Ag': 1.0, 'F': 6.0}\",\"('Ag', 'Al', 'F', 'Li')\",OTHERS,False\nmp-1210883,\"{'Nd': 28.0, 'V': 8.0, 'B': 4.0, 'O': 68.0}\",\"('B', 'Nd', 'O', 'V')\",OTHERS,False\nmp-1211154,\"{'Na': 6.0, 'Ca': 8.0, 'Ti': 2.0, 'Si': 8.0, 'O': 32.0, 'F': 4.0}\",\"('Ca', 'F', 'Na', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-1206671,\"{'Lu': 2.0, 'Se': 2.0, 'I': 2.0}\",\"('I', 'Lu', 'Se')\",OTHERS,False\nmp-780706,\"{'Li': 2.0, 'Mn': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1183219,\"{'Ba': 2.0, 'Mg': 1.0, 'Tl': 1.0}\",\"('Ba', 'Mg', 'Tl')\",OTHERS,False\nmp-5479,\"{'F': 4.0, 'Al': 1.0, 'Rb': 1.0}\",\"('Al', 'F', 'Rb')\",OTHERS,False\nmp-568808,\"{'Tb': 6.0, 'Se': 8.0}\",\"('Se', 'Tb')\",OTHERS,False\nmp-1183933,\"{'Cs': 1.0, 'Np': 1.0, 'O': 3.0}\",\"('Cs', 'Np', 'O')\",OTHERS,False\nmp-1033732,\"{'Mg': 14.0, 'B': 1.0, 'Sb': 1.0, 'O': 16.0}\",\"('B', 'Mg', 'O', 'Sb')\",OTHERS,False\nmp-705432,\"{'Li': 12.0, 'Ni': 10.0, 'P': 16.0, 'O': 56.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-975933,\"{'Nd': 1.0, 'Ho': 1.0, 'In': 2.0}\",\"('Ho', 'In', 'Nd')\",OTHERS,False\nmp-1198649,\"{'K': 9.0, 'Y': 3.0, 'Si': 12.0, 'O': 32.0, 'F': 2.0}\",\"('F', 'K', 'O', 'Si', 'Y')\",OTHERS,False\nmp-1176194,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-642649,\"{'Ba': 2.0, 'H': 4.0, 'O': 6.0}\",\"('Ba', 'H', 'O')\",OTHERS,False\nmp-1215921,\"{'Y': 1.0, 'Ho': 1.0, 'C': 4.0}\",\"('C', 'Ho', 'Y')\",OTHERS,False\nmp-754057,\"{'Li': 4.0, 'Fe': 2.0, 'Cu': 3.0, 'Sb': 3.0, 'O': 16.0}\",\"('Cu', 'Fe', 'Li', 'O', 'Sb')\",OTHERS,False\nmp-779706,\"{'Ag': 4.0, 'Ge': 4.0, 'O': 12.0}\",\"('Ag', 'Ge', 'O')\",OTHERS,False\nmp-1178561,\"{'Ag': 1.0, 'Cl': 1.0, 'O': 3.0}\",\"('Ag', 'Cl', 'O')\",OTHERS,False\nmp-571467,\"{'Cs': 2.0, 'Na': 1.0, 'Y': 1.0, 'Br': 6.0}\",\"('Br', 'Cs', 'Na', 'Y')\",OTHERS,False\nmp-1220708,\"{'Na': 1.0, 'Ho': 1.0, 'F': 4.0}\",\"('F', 'Ho', 'Na')\",OTHERS,False\nmp-23280,\"{'Cl': 12.0, 'As': 4.0}\",\"('As', 'Cl')\",OTHERS,False\nmp-1028947,\"{'Mo': 1.0, 'W': 3.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-753719,\"{'Sr': 1.0, 'Li': 1.0, 'Nb': 2.0, 'O': 6.0, 'F': 1.0}\",\"('F', 'Li', 'Nb', 'O', 'Sr')\",OTHERS,False\nmp-985297,\"{'Ag': 3.0, 'Rh': 1.0}\",\"('Ag', 'Rh')\",OTHERS,False\nmp-757169,\"{'Li': 4.0, 'Mn': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1211819,\"{'K': 6.0, 'Hf': 8.0, 'Ag': 4.0, 'F': 46.0}\",\"('Ag', 'F', 'Hf', 'K')\",OTHERS,False\nmp-25823,\"{'Li': 2.0, 'Ni': 4.0, 'P': 10.0, 'O': 30.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-542132,\"{'Yb': 2.0, 'As': 4.0, 'Cu': 2.0}\",\"('As', 'Cu', 'Yb')\",OTHERS,False\nmp-849955,\"{'Li': 9.0, 'Mn': 15.0, 'Fe': 6.0, 'O': 36.0}\",\"('Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-7151,\"{'Cu': 2.0, 'Se': 6.0, 'Cs': 2.0, 'U': 2.0}\",\"('Cs', 'Cu', 'Se', 'U')\",OTHERS,False\nmp-20269,\"{'Mn': 1.0, 'Ga': 1.0, 'Pt': 1.0}\",\"('Ga', 'Mn', 'Pt')\",OTHERS,False\nmp-1095694,\"{'Ag': 8.0, 'S': 4.0}\",\"('Ag', 'S')\",OTHERS,False\nmp-1177438,\"{'Li': 4.0, 'Mn': 2.0, 'Cr': 3.0, 'Co': 3.0, 'O': 16.0}\",\"('Co', 'Cr', 'Li', 'Mn', 'O')\",OTHERS,False\nmvc-671,\"{'W': 3.0, 'O': 8.0}\",\"('O', 'W')\",OTHERS,False\nmp-1478,\"{'Cu': 8.0, 'O': 6.0}\",\"('Cu', 'O')\",OTHERS,False\nmp-1183679,\"{'Cr': 1.0, 'H': 3.0}\",\"('Cr', 'H')\",OTHERS,False\nmp-601396,\"{'Cu': 4.0, 'H': 40.0, 'C': 8.0, 'N': 16.0, 'O': 40.0}\",\"('C', 'Cu', 'H', 'N', 'O')\",OTHERS,False\nmp-1187595,\"{'Yb': 1.0, 'Ni': 1.0, 'O': 3.0}\",\"('Ni', 'O', 'Yb')\",OTHERS,False\nmp-1179005,\"{'V': 4.0, 'Re': 4.0, 'O': 22.0}\",\"('O', 'Re', 'V')\",OTHERS,False\nmp-1196075,\"{'Si': 20.0, 'H': 114.0, 'C': 38.0}\",\"('C', 'H', 'Si')\",OTHERS,False\nmp-556377,\"{'Ba': 17.0, 'Dy': 16.0, 'Zn': 8.0, 'Pt': 4.0, 'O': 57.0}\",\"('Ba', 'Dy', 'O', 'Pt', 'Zn')\",OTHERS,False\nmp-3787,\"{'S': 6.0, 'Fe': 4.0, 'Rb': 2.0}\",\"('Fe', 'Rb', 'S')\",OTHERS,False\nmp-1247046,\"{'Fe': 1.0, 'Co': 10.0, 'N': 8.0}\",\"('Co', 'Fe', 'N')\",OTHERS,False\nmp-1211487,\"{'K': 8.0, 'Yb': 4.0, 'F': 20.0}\",\"('F', 'K', 'Yb')\",OTHERS,False\nmp-1196069,\"{'Nd': 12.0, 'Al': 86.0, 'W': 8.0}\",\"('Al', 'Nd', 'W')\",OTHERS,False\nmp-1224629,\"{'Gd': 2.0, 'Fe': 4.0, 'Bi': 2.0, 'O': 12.0}\",\"('Bi', 'Fe', 'Gd', 'O')\",OTHERS,False\nmp-975812,\"{'Pr': 1.0, 'Sm': 3.0}\",\"('Pr', 'Sm')\",OTHERS,False\nmp-1183972,\"{'Cs': 1.0, 'Sr': 1.0, 'O': 3.0}\",\"('Cs', 'O', 'Sr')\",OTHERS,False\nmp-10106,\"{'Ca': 4.0, 'As': 2.0}\",\"('As', 'Ca')\",OTHERS,False\nmp-1218394,\"{'Sr': 3.0, 'Be': 2.0, 'B': 5.0, 'H': 1.0, 'O': 13.0}\",\"('B', 'Be', 'H', 'O', 'Sr')\",OTHERS,False\nmp-1214083,\"{'Ca': 12.0, 'Si': 4.0, 'O': 16.0, 'F': 4.0}\",\"('Ca', 'F', 'O', 'Si')\",OTHERS,False\nmp-567939,\"{'Cs': 1.0, 'Sm': 1.0, 'Cl': 3.0}\",\"('Cl', 'Cs', 'Sm')\",OTHERS,False\nmp-1245720,\"{'Zn': 1.0, 'Pb': 2.0, 'N': 2.0}\",\"('N', 'Pb', 'Zn')\",OTHERS,False\nmp-1225560,\"{'Er': 2.0, 'O': 3.0}\",\"('Er', 'O')\",OTHERS,False\nmp-773502,\"{'K': 2.0, 'Co': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Co', 'K', 'O', 'P')\",OTHERS,False\nmp-1094985,\"{'Mg': 8.0, 'Cd': 4.0}\",\"('Cd', 'Mg')\",OTHERS,False\nmp-1095452,\"{'U': 3.0, 'Fe': 2.0, 'Ge': 7.0}\",\"('Fe', 'Ge', 'U')\",OTHERS,False\nmp-1183556,\"{'Ca': 1.0, 'Y': 1.0, 'Cd': 2.0}\",\"('Ca', 'Cd', 'Y')\",OTHERS,False\nmp-30216,\"{'K': 4.0, 'I': 12.0, 'Re': 2.0}\",\"('I', 'K', 'Re')\",OTHERS,False\nmp-1210455,\"{'Na': 3.0, 'La': 1.0, 'As': 2.0, 'O': 8.0}\",\"('As', 'La', 'Na', 'O')\",OTHERS,False\nmp-1186570,\"{'Pr': 1.0, 'Dy': 1.0, 'In': 2.0}\",\"('Dy', 'In', 'Pr')\",OTHERS,False\nmp-755576,\"{'Zr': 8.0, 'N': 8.0, 'O': 4.0}\",\"('N', 'O', 'Zr')\",OTHERS,False\nmp-1226984,\"{'La': 20.0, 'Ga': 6.0, 'Co': 14.0}\",\"('Co', 'Ga', 'La')\",OTHERS,False\nmp-1018740,\"{'La': 2.0, 'Co': 2.0, 'Si': 2.0}\",\"('Co', 'La', 'Si')\",OTHERS,False\nmp-1005761,\"{'Sm': 2.0, 'Gd': 6.0}\",\"('Gd', 'Sm')\",OTHERS,False\nmp-1186674,\"{'Pm': 1.0, 'Zn': 2.0, 'Hg': 1.0}\",\"('Hg', 'Pm', 'Zn')\",OTHERS,False\nmp-162,{'Yb': 1.0},\"('Yb',)\",OTHERS,False\nmp-1191851,\"{'Yb': 6.0, 'Si': 4.0, 'Ni': 12.0}\",\"('Ni', 'Si', 'Yb')\",OTHERS,False\nmp-977446,\"{'Nd': 2.0, 'V': 2.0, 'Ge': 6.0}\",\"('Ge', 'Nd', 'V')\",OTHERS,False\nmp-1207829,\"{'Yb': 12.0, 'Mn': 8.0, 'Al': 86.0}\",\"('Al', 'Mn', 'Yb')\",OTHERS,False\nmp-1207780,\"{'Y': 12.0, 'Rh': 4.0}\",\"('Rh', 'Y')\",OTHERS,False\nmp-770370,\"{'V': 12.0, 'B': 4.0, 'O': 24.0}\",\"('B', 'O', 'V')\",OTHERS,False\nmp-1217198,\"{'V': 4.0, 'Cd': 4.0, 'Ni': 4.0, 'P': 8.0, 'O': 52.0}\",\"('Cd', 'Ni', 'O', 'P', 'V')\",OTHERS,False\nmp-565711,\"{'P': 24.0, 'O': 24.0, 'F': 36.0}\",\"('F', 'O', 'P')\",OTHERS,False\nmp-1099622,\"{'K': 5.0, 'Na': 3.0, 'Nb': 7.0, 'W': 1.0, 'O': 24.0}\",\"('K', 'Na', 'Nb', 'O', 'W')\",OTHERS,False\nmp-1177697,\"{'Li': 3.0, 'Cu': 4.0, 'Sb': 1.0, 'O': 8.0}\",\"('Cu', 'Li', 'O', 'Sb')\",OTHERS,False\nmp-1246934,\"{'Mg': 2.0, 'Ti': 3.0, 'Ni': 1.0, 'S': 8.0}\",\"('Mg', 'Ni', 'S', 'Ti')\",OTHERS,False\nmp-1178865,\"{'W': 4.0, 'O': 20.0}\",\"('O', 'W')\",OTHERS,False\nmp-1195268,\"{'Co': 8.0, 'Bi': 16.0, 'S': 8.0, 'O': 56.0}\",\"('Bi', 'Co', 'O', 'S')\",OTHERS,False\nmp-685478,\"{'Na': 32.0, 'Pd': 16.0, 'O': 48.0}\",\"('Na', 'O', 'Pd')\",OTHERS,False\nmp-28238,\"{'Se': 44.0, 'Sb': 16.0, 'Ba': 16.0}\",\"('Ba', 'Sb', 'Se')\",OTHERS,False\nmp-780897,\"{'Li': 4.0, 'Mn': 4.0, 'P': 8.0, 'H': 12.0, 'O': 34.0}\",\"('H', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-557295,\"{'V': 8.0, 'Se': 16.0, 'O': 48.0}\",\"('O', 'Se', 'V')\",OTHERS,False\nmp-29357,\"{'C': 2.0, 'Cl': 28.0, 'Zr': 12.0}\",\"('C', 'Cl', 'Zr')\",OTHERS,False\nmp-1205990,\"{'Nb': 1.0, 'N': 2.0, 'Cl': 6.0}\",\"('Cl', 'N', 'Nb')\",OTHERS,False\nmp-1185618,\"{'Mg': 1.0, 'V': 1.0, 'Rh': 2.0}\",\"('Mg', 'Rh', 'V')\",OTHERS,False\nmp-973926,\"{'K': 2.0, 'Co': 2.0, 'H': 6.0, 'C': 6.0, 'O': 12.0}\",\"('C', 'Co', 'H', 'K', 'O')\",OTHERS,False\nmp-1091374,\"{'Nb': 2.0, 'Cr': 2.0, 'N': 4.0}\",\"('Cr', 'N', 'Nb')\",OTHERS,False\nmp-18190,\"{'O': 12.0, 'Ca': 1.0, 'Cu': 3.0, 'Sn': 4.0}\",\"('Ca', 'Cu', 'O', 'Sn')\",OTHERS,False\nmp-697873,\"{'Sn': 4.0, 'H': 4.0, 'C': 8.0, 'O': 12.0}\",\"('C', 'H', 'O', 'Sn')\",OTHERS,False\nmp-13456,\"{'S': 5.0, 'Zn': 5.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-3654,\"{'F': 3.0, 'Ca': 1.0, 'Rb': 1.0}\",\"('Ca', 'F', 'Rb')\",OTHERS,False\nmp-1101241,\"{'V': 14.0, 'Fe': 5.0, 'O': 32.0}\",\"('Fe', 'O', 'V')\",OTHERS,False\nmp-1176633,\"{'Li': 8.0, 'Ni': 8.0, 'P': 8.0, 'O': 32.0, 'F': 8.0}\",\"('F', 'Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-7935,\"{'Sb': 2.0, 'Te': 2.0, 'U': 2.0}\",\"('Sb', 'Te', 'U')\",OTHERS,False\nmp-23408,\"{'S': 20.0, 'Tl': 16.0, 'Bi': 8.0}\",\"('Bi', 'S', 'Tl')\",OTHERS,False\nmp-977358,\"{'Ho': 2.0, 'Ag': 1.0, 'Ir': 1.0}\",\"('Ag', 'Ho', 'Ir')\",OTHERS,False\nmp-31084,\"{'Zr': 12.0, 'Ge': 24.0, 'Rh': 12.0}\",\"('Ge', 'Rh', 'Zr')\",OTHERS,False\nmp-766402,\"{'Li': 8.0, 'V': 4.0, 'Si': 12.0, 'O': 32.0}\",\"('Li', 'O', 'Si', 'V')\",OTHERS,False\nmp-556291,\"{'Ba': 12.0, 'Sn': 8.0, 'S': 28.0}\",\"('Ba', 'S', 'Sn')\",OTHERS,False\nmp-1099087,\"{'Mg': 14.0, 'Co': 1.0, 'Sn': 1.0}\",\"('Co', 'Mg', 'Sn')\",OTHERS,False\nmp-555891,\"{'Si': 4.0, 'O': 8.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1207733,\"{'Y': 4.0, 'Cr': 4.0, 'Ge': 4.0, 'O': 20.0}\",\"('Cr', 'Ge', 'O', 'Y')\",OTHERS,False\nmp-1039117,\"{'Ca': 1.0, 'Mg': 3.0}\",\"('Ca', 'Mg')\",OTHERS,False\nmp-505212,\"{'Cs': 6.0, 'Au': 2.0, 'O': 2.0}\",\"('Au', 'Cs', 'O')\",OTHERS,False\nmp-2976,\"{'B': 1.0, 'Pd': 3.0, 'Pr': 1.0}\",\"('B', 'Pd', 'Pr')\",OTHERS,False\nmp-765596,\"{'Li': 4.0, 'V': 8.0, 'O': 20.0, 'F': 4.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-1112603,\"{'Cs': 2.0, 'Hg': 1.0, 'As': 1.0, 'F': 6.0}\",\"('As', 'Cs', 'F', 'Hg')\",OTHERS,False\nmp-643743,\"{'Cu': 4.0, 'H': 4.0, 'Cl': 4.0, 'O': 4.0}\",\"('Cl', 'Cu', 'H', 'O')\",OTHERS,False\nmp-1197511,\"{'Ti': 18.0, 'Mn': 4.0, 'B': 16.0, 'Ru': 36.0}\",\"('B', 'Mn', 'Ru', 'Ti')\",OTHERS,False\nmp-1197271,\"{'Eu': 4.0, 'V': 8.0, 'I': 4.0, 'O': 36.0}\",\"('Eu', 'I', 'O', 'V')\",OTHERS,False\nmp-557784,\"{'La': 4.0, 'Nb': 4.0, 'Te': 4.0, 'O': 24.0}\",\"('La', 'Nb', 'O', 'Te')\",OTHERS,False\nmp-1203752,\"{'Tb': 4.0, 'Fe': 20.0, 'P': 12.0}\",\"('Fe', 'P', 'Tb')\",OTHERS,False\nmp-1244920,\"{'V': 30.0, 'O': 75.0}\",\"('O', 'V')\",OTHERS,False\nmp-1197808,\"{'Ca': 4.0, 'Sn': 4.0, 'O': 24.0}\",\"('Ca', 'O', 'Sn')\",OTHERS,False\nmp-769159,\"{'Li': 4.0, 'Cu': 4.0, 'P': 4.0, 'H': 8.0, 'O': 20.0}\",\"('Cu', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-556638,\"{'K': 4.0, 'Th': 2.0, 'Mo': 6.0, 'O': 24.0}\",\"('K', 'Mo', 'O', 'Th')\",OTHERS,False\nmp-1195226,\"{'Pb': 8.0, 'Br': 6.0, 'N': 2.0, 'O': 32.0}\",\"('Br', 'N', 'O', 'Pb')\",OTHERS,False\nmp-1919,\"{'Cr': 8.0, 'Zr': 4.0}\",\"('Cr', 'Zr')\",OTHERS,False\nmp-774106,\"{'Li': 6.0, 'Fe': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-759331,\"{'Fe': 18.0, 'O': 18.0, 'F': 18.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1176549,\"{'Li': 1.0, 'V': 3.0, 'O': 6.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1016825,\"{'Hf': 1.0, 'Mg': 1.0, 'O': 3.0}\",\"('Hf', 'Mg', 'O')\",OTHERS,False\nmp-30304,\"{'O': 14.0, 'Sb': 2.0, 'Bi': 6.0}\",\"('Bi', 'O', 'Sb')\",OTHERS,False\nmp-753099,\"{'Li': 3.0, 'Co': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1197179,\"{'Er': 22.0, 'In': 12.0, 'Ge': 8.0}\",\"('Er', 'Ge', 'In')\",OTHERS,False\nmp-1223689,\"{'K': 2.0, 'Cd': 3.0, 'Sn': 1.0, 'As': 4.0}\",\"('As', 'Cd', 'K', 'Sn')\",OTHERS,False\nmp-766530,\"{'Li': 4.0, 'Fe': 4.0, 'Si': 6.0, 'O': 20.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1251718,\"{'Ba': 8.0, 'Al': 16.0, 'O': 48.0}\",\"('Al', 'Ba', 'O')\",OTHERS,False\nmp-1197754,\"{'Np': 2.0, 'U': 2.0, 'P': 8.0, 'H': 8.0, 'C': 4.0, 'O': 32.0}\",\"('C', 'H', 'Np', 'O', 'P', 'U')\",OTHERS,False\nmp-1080076,\"{'Sr': 2.0, 'N': 1.0, 'O': 6.0}\",\"('N', 'O', 'Sr')\",OTHERS,False\nmp-1176923,\"{'Li': 12.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-505401,\"{'K': 4.0, 'Mn': 4.0, 'F': 16.0, 'O': 4.0, 'H': 8.0}\",\"('F', 'H', 'K', 'Mn', 'O')\",OTHERS,False\nmp-1221649,\"{'Mn': 1.0, 'Co': 1.0, 'Ni': 1.0, 'Sn': 1.0}\",\"('Co', 'Mn', 'Ni', 'Sn')\",OTHERS,False\nmp-1252068,\"{'K': 2.0, 'Al': 22.0, 'O': 34.0}\",\"('Al', 'K', 'O')\",OTHERS,False\nmp-1213734,\"{'Cs': 6.0, 'Nb': 12.0, 'S': 2.0, 'Br': 34.0}\",\"('Br', 'Cs', 'Nb', 'S')\",OTHERS,False\nmvc-7738,\"{'Ca': 4.0, 'Bi': 6.0, 'O': 16.0}\",\"('Bi', 'Ca', 'O')\",OTHERS,False\nmp-11131,\"{'S': 8.0, 'K': 2.0, 'Ge': 2.0, 'Hg': 3.0}\",\"('Ge', 'Hg', 'K', 'S')\",OTHERS,False\nmp-25259,\"{'O': 20.0, 'Fe': 2.0, 'Se': 8.0}\",\"('Fe', 'O', 'Se')\",OTHERS,False\nmp-1095161,\"{'Sm': 2.0, 'Mn': 2.0, 'Ge': 4.0}\",\"('Ge', 'Mn', 'Sm')\",OTHERS,False\nmp-1025575,\"{'Mo': 1.0, 'W': 2.0, 'Se': 6.0}\",\"('Mo', 'Se', 'W')\",OTHERS,False\nmp-685267,\"{'Cr': 36.0, 'Ga': 12.0, 'S': 72.0}\",\"('Cr', 'Ga', 'S')\",OTHERS,False\nmp-610787,\"{'Gd': 1.0, 'Cr': 2.0, 'Si': 2.0}\",\"('Cr', 'Gd', 'Si')\",OTHERS,False\nmp-752911,\"{'Li': 4.0, 'V': 4.0, 'F': 12.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1220519,\"{'Nb': 4.0, 'N': 3.0}\",\"('N', 'Nb')\",OTHERS,False\nmp-1180517,\"{'Mg': 1.0, 'S': 1.0, 'O': 9.0}\",\"('Mg', 'O', 'S')\",OTHERS,False\nmp-778,\"{'P': 3.0, 'Fe': 6.0}\",\"('Fe', 'P')\",OTHERS,False\nmp-1074528,\"{'Mg': 16.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1039344,\"{'Sn': 6.0, 'Bi': 2.0}\",\"('Bi', 'Sn')\",OTHERS,False\nmp-766465,\"{'Sr': 8.0, 'Mn': 4.0, 'C': 4.0, 'O': 12.0, 'F': 20.0}\",\"('C', 'F', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1215189,\"{'Zr': 1.0, 'Ti': 1.0, 'S': 4.0}\",\"('S', 'Ti', 'Zr')\",OTHERS,False\nmp-1223667,\"{'K': 2.0, 'Ba': 1.0, 'Sn': 1.0, 'Te': 4.0}\",\"('Ba', 'K', 'Sn', 'Te')\",OTHERS,False\nmp-1197995,\"{'Na': 4.0, 'Mg': 2.0, 'P': 8.0, 'H': 24.0, 'O': 36.0}\",\"('H', 'Mg', 'Na', 'O', 'P')\",OTHERS,False\nmp-1206770,\"{'Np': 1.0, 'Ga': 5.0, 'Rh': 1.0}\",\"('Ga', 'Np', 'Rh')\",OTHERS,False\nmp-1080154,\"{'Te': 2.0, 'Mo': 3.0, 'W': 1.0, 'Se': 4.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-28702,\"{'Gd': 2.0, 'B': 3.0, 'C': 2.0}\",\"('B', 'C', 'Gd')\",OTHERS,False\nmp-9457,\"{'O': 12.0, 'Ca': 6.0, 'Re': 2.0}\",\"('Ca', 'O', 'Re')\",OTHERS,False\nmp-1218722,\"{'Sr': 2.0, 'Pr': 2.0, 'Cr': 1.0, 'Ni': 1.0, 'O': 8.0}\",\"('Cr', 'Ni', 'O', 'Pr', 'Sr')\",OTHERS,False\nmp-568621,\"{'Mg': 16.0, 'B': 2.0, 'Rh': 8.0}\",\"('B', 'Mg', 'Rh')\",OTHERS,False\nmp-1099088,\"{'K': 1.0, 'Mg': 14.0, 'Co': 1.0}\",\"('Co', 'K', 'Mg')\",OTHERS,False\nmp-1019808,\"{'K': 6.0, 'Be': 12.0, 'B': 18.0, 'O': 42.0}\",\"('B', 'Be', 'K', 'O')\",OTHERS,False\nmp-675710,\"{'K': 4.0, 'U': 4.0, 'O': 14.0}\",\"('K', 'O', 'U')\",OTHERS,False\nmp-1190482,\"{'Mn': 4.0, 'N': 4.0, 'Cl': 12.0}\",\"('Cl', 'Mn', 'N')\",OTHERS,False\nmp-560812,\"{'K': 2.0, 'U': 4.0, 'P': 6.0, 'O': 24.0}\",\"('K', 'O', 'P', 'U')\",OTHERS,False\nmp-1246012,\"{'Ni': 2.0, 'C': 12.0, 'N': 18.0}\",\"('C', 'N', 'Ni')\",OTHERS,False\nmp-1227951,\"{'Ba': 1.0, 'La': 1.0, 'Co': 2.0, 'O': 6.0}\",\"('Ba', 'Co', 'La', 'O')\",OTHERS,False\nmp-22188,\"{'Cu': 2.0, 'Sn': 2.0, 'Dy': 2.0}\",\"('Cu', 'Dy', 'Sn')\",OTHERS,False\nmp-1221057,\"{'Na': 2.0, 'Eu': 2.0, 'Ti': 2.0, 'Nb': 2.0, 'O': 12.0, 'F': 2.0}\",\"('Eu', 'F', 'Na', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-865524,\"{'Y': 1.0, 'Cd': 1.0, 'Pt': 2.0}\",\"('Cd', 'Pt', 'Y')\",OTHERS,False\nmp-5746,\"{'O': 20.0, 'Mg': 4.0, 'Te': 8.0}\",\"('Mg', 'O', 'Te')\",OTHERS,False\nmp-17388,\"{'Cu': 6.0, 'Sn': 5.0, 'Yb': 3.0}\",\"('Cu', 'Sn', 'Yb')\",OTHERS,False\nmp-781626,\"{'Li': 4.0, 'Nb': 2.0, 'O': 6.0}\",\"('Li', 'Nb', 'O')\",OTHERS,False\nmp-26742,\"{'O': 24.0, 'P': 6.0, 'Cu': 8.0}\",\"('Cu', 'O', 'P')\",OTHERS,False\nmp-1078838,\"{'Ti': 2.0, 'Fe': 2.0, 'H': 4.0}\",\"('Fe', 'H', 'Ti')\",OTHERS,False\nmp-568791,\"{'Ca': 3.0, 'Si': 1.0, 'Br': 2.0}\",\"('Br', 'Ca', 'Si')\",OTHERS,False\nmp-865406,\"{'Lu': 2.0, 'Zn': 1.0, 'Au': 1.0}\",\"('Au', 'Lu', 'Zn')\",OTHERS,False\nmp-776483,\"{'Li': 8.0, 'Mn': 4.0, 'P': 4.0, 'O': 16.0, 'F': 4.0}\",\"('F', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-622508,\"{'Gd': 1.0, 'Si': 2.0, 'Rh': 3.0}\",\"('Gd', 'Rh', 'Si')\",OTHERS,False\nmp-1028539,\"{'Te': 4.0, 'Mo': 2.0, 'W': 2.0, 'Se': 4.0}\",\"('Mo', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1223170,\"{'La': 2.0, 'Ti': 3.0, 'Ni': 1.0, 'O': 10.0}\",\"('La', 'Ni', 'O', 'Ti')\",OTHERS,False\nmp-769557,\"{'Li': 2.0, 'Mn': 2.0, 'Nb': 2.0, 'O': 8.0}\",\"('Li', 'Mn', 'Nb', 'O')\",OTHERS,False\nmp-1226264,\"{'Cr': 4.0, 'Ga': 1.0, 'S': 8.0}\",\"('Cr', 'Ga', 'S')\",OTHERS,False\nmp-1204207,\"{'Nb': 30.0, 'Ge': 21.0}\",\"('Ge', 'Nb')\",OTHERS,False\nmp-1247458,\"{'Sr': 24.0, 'Pb': 3.0, 'N': 18.0}\",\"('N', 'Pb', 'Sr')\",OTHERS,False\nmp-757855,\"{'V': 8.0, 'Co': 4.0, 'H': 16.0, 'O': 32.0}\",\"('Co', 'H', 'O', 'V')\",OTHERS,False\nmp-1080793,\"{'Pu': 2.0, 'Te': 6.0}\",\"('Pu', 'Te')\",OTHERS,False\nmp-1179633,\"{'S': 4.0, 'N': 2.0, 'O': 18.0}\",\"('N', 'O', 'S')\",OTHERS,False\nmp-768954,\"{'Ba': 8.0, 'Y': 4.0, 'Cl': 28.0}\",\"('Ba', 'Cl', 'Y')\",OTHERS,False\nmp-1023124,\"{'Co': 2.0, 'Mo': 1.0, 'S': 4.0}\",\"('Co', 'Mo', 'S')\",OTHERS,False\nmp-29646,\"{'As': 8.0, 'Hf': 4.0}\",\"('As', 'Hf')\",OTHERS,False\nmp-654301,\"{'Nb': 10.0, 'P': 14.0, 'O': 60.0}\",\"('Nb', 'O', 'P')\",OTHERS,False\nmp-754116,\"{'Ba': 2.0, 'Y': 4.0, 'Br': 16.0}\",\"('Ba', 'Br', 'Y')\",OTHERS,False\nmp-1093757,\"{'Zr': 1.0, 'Ti': 1.0, 'Au': 2.0}\",\"('Au', 'Ti', 'Zr')\",OTHERS,False\nmp-768865,\"{'Lu': 8.0, 'Ge': 4.0, 'O': 20.0}\",\"('Ge', 'Lu', 'O')\",OTHERS,False\nmp-34322,\"{'Dy': 4.0, 'O': 14.0, 'Ti': 4.0}\",\"('Dy', 'O', 'Ti')\",OTHERS,False\nmp-756266,\"{'Li': 4.0, 'Cr': 3.0, 'Ga': 1.0, 'O': 8.0}\",\"('Cr', 'Ga', 'Li', 'O')\",OTHERS,False\nmvc-3477,\"{'Mn': 2.0, 'Zn': 2.0, 'F': 8.0}\",\"('F', 'Mn', 'Zn')\",OTHERS,False\nmp-582278,\"{'Tm': 16.0, 'In': 4.0, 'Rh': 4.0}\",\"('In', 'Rh', 'Tm')\",OTHERS,False\nmp-753874,\"{'Li': 4.0, 'Si': 4.0, 'Ni': 2.0, 'O': 12.0}\",\"('Li', 'Ni', 'O', 'Si')\",OTHERS,False\nmp-756160,\"{'Er': 6.0, 'Ta': 2.0, 'O': 14.0}\",\"('Er', 'O', 'Ta')\",OTHERS,False\nmp-1038781,\"{'Mg': 8.0, 'Bi': 4.0}\",\"('Bi', 'Mg')\",OTHERS,False\nmp-779091,\"{'Li': 2.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1225460,\"{'Fe': 4.0, 'H': 36.0, 'S': 8.0, 'O': 48.0}\",\"('Fe', 'H', 'O', 'S')\",OTHERS,False\nmp-1095497,\"{'Y': 3.0, 'Ir': 9.0}\",\"('Ir', 'Y')\",OTHERS,False\nmvc-2762,\"{'Ba': 2.0, 'Tl': 2.0, 'Zn': 2.0, 'Sn': 3.0, 'O': 10.0}\",\"('Ba', 'O', 'Sn', 'Tl', 'Zn')\",OTHERS,False\nmp-1224741,\"{'Gd': 4.0, 'Ti': 2.0, 'Cu': 2.0, 'O': 12.0}\",\"('Cu', 'Gd', 'O', 'Ti')\",OTHERS,False\nmvc-2773,\"{'Sr': 2.0, 'Sn': 2.0, 'P': 4.0, 'O': 16.0}\",\"('O', 'P', 'Sn', 'Sr')\",OTHERS,False\nmp-1200788,\"{'Cu': 12.0, 'P': 32.0, 'Se': 24.0, 'Br': 12.0}\",\"('Br', 'Cu', 'P', 'Se')\",OTHERS,False\nmvc-2768,\"{'Ba': 2.0, 'Ca': 2.0, 'Tl': 2.0, 'Sn': 3.0, 'O': 10.0}\",\"('Ba', 'Ca', 'O', 'Sn', 'Tl')\",OTHERS,False\nmp-675462,\"{'Mo': 8.0, 'Ru': 4.0, 'Se': 16.0}\",\"('Mo', 'Ru', 'Se')\",OTHERS,False\nmp-1216820,\"{'U': 2.0, 'Cu': 1.0, 'Si': 3.0}\",\"('Cu', 'Si', 'U')\",OTHERS,False\nmp-1209821,\"{'Np': 4.0, 'Ge': 4.0, 'O': 8.0}\",\"('Ge', 'Np', 'O')\",OTHERS,False\nmp-865762,\"{'Tl': 1.0, 'W': 2.0, 'Cl': 6.0, 'O': 2.0}\",\"('Cl', 'O', 'Tl', 'W')\",OTHERS,False\nmp-22502,\"{'N': 1.0, 'Mn': 3.0, 'Ir': 1.0}\",\"('Ir', 'Mn', 'N')\",OTHERS,False\nmp-776754,\"{'Li': 2.0, 'Fe': 3.0, 'F': 8.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-1189473,\"{'Fe': 1.0, 'Sb': 1.0, 'Cl': 8.0, 'O': 8.0}\",\"('Cl', 'Fe', 'O', 'Sb')\",OTHERS,False\nmp-628185,\"{'K': 6.0, 'Na': 2.0, 'Sn': 6.0, 'Se': 16.0}\",\"('K', 'Na', 'Se', 'Sn')\",OTHERS,False\nmp-30186,\"{'Si': 46.0, 'Ba': 6.0}\",\"('Ba', 'Si')\",OTHERS,False\nmp-636380,\"{'Li': 2.0, 'O': 8.0, 'Mo': 4.0}\",\"('Li', 'Mo', 'O')\",OTHERS,False\nmp-1221707,\"{'Mn': 9.0, 'Al': 4.0, 'V': 3.0}\",\"('Al', 'Mn', 'V')\",OTHERS,False\nmp-1204916,\"{'K': 8.0, 'Fe': 4.0, 'F': 20.0}\",\"('F', 'Fe', 'K')\",OTHERS,False\nmp-579552,\"{'La': 24.0, 'C': 12.0, 'O': 60.0}\",\"('C', 'La', 'O')\",OTHERS,False\nmp-1213172,\"{'Cs': 2.0, 'Tm': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Cs', 'Mo', 'O', 'Tm')\",OTHERS,False\nmp-1206129,\"{'Rb': 1.0, 'As': 2.0, 'Ru': 2.0}\",\"('As', 'Rb', 'Ru')\",OTHERS,False\nmp-1199646,\"{'Li': 4.0, 'Zn': 8.0, 'B': 20.0, 'H': 80.0}\",\"('B', 'H', 'Li', 'Zn')\",OTHERS,False\nmp-1185264,\"{'La': 3.0, 'Eu': 1.0}\",\"('Eu', 'La')\",OTHERS,False\nmp-776286,\"{'Ti': 3.0, 'Cr': 1.0, 'Sn': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'O', 'P', 'Sn', 'Ti')\",OTHERS,False\nmp-1195771,\"{'Zn': 8.0, 'As': 8.0, 'O': 36.0}\",\"('As', 'O', 'Zn')\",OTHERS,False\nmp-867169,\"{'Sr': 2.0, 'Sn': 1.0, 'Hg': 1.0}\",\"('Hg', 'Sn', 'Sr')\",OTHERS,False\nmp-1226470,\"{'Ce': 1.0, 'Y': 1.0, 'Co': 4.0}\",\"('Ce', 'Co', 'Y')\",OTHERS,False\nmp-1181758,\"{'Mn': 2.0, 'B': 8.0, 'O': 32.0}\",\"('B', 'Mn', 'O')\",OTHERS,False\nmp-1213420,\"{'Eu': 2.0, 'Sb': 3.0, 'Pd': 3.0}\",\"('Eu', 'Pd', 'Sb')\",OTHERS,False\nmp-1016823,\"{'Ba': 1.0, 'Ge': 1.0, 'O': 3.0}\",\"('Ba', 'Ge', 'O')\",OTHERS,False\nmp-557748,\"{'Sb': 8.0, 'Ir': 8.0, 'C': 16.0, 'O': 16.0, 'F': 48.0}\",\"('C', 'F', 'Ir', 'O', 'Sb')\",OTHERS,False\nmvc-11241,\"{'V': 1.0, 'S': 2.0}\",\"('S', 'V')\",OTHERS,False\nmp-30741,\"{'Ir': 3.0, 'Pa': 1.0}\",\"('Ir', 'Pa')\",OTHERS,False\nmp-769344,\"{'Ba': 16.0, 'Ta': 8.0, 'O': 36.0}\",\"('Ba', 'O', 'Ta')\",OTHERS,False\nmp-771042,\"{'Li': 6.0, 'Nb': 3.0, 'Fe': 3.0, 'O': 16.0}\",\"('Fe', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-1175222,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-770212,\"{'Li': 24.0, 'Ti': 8.0, 'S': 24.0, 'O': 4.0}\",\"('Li', 'O', 'S', 'Ti')\",OTHERS,False\nmp-1073254,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1222420,\"{'Li': 1.0, 'Fe': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-722485,\"{'Sr': 2.0, 'P': 4.0, 'H': 12.0, 'O': 18.0}\",\"('H', 'O', 'P', 'Sr')\",OTHERS,False\nmp-1183498,\"{'Ca': 3.0, 'Ho': 1.0}\",\"('Ca', 'Ho')\",OTHERS,False\nmp-1025183,\"{'Ho': 2.0, 'B': 4.0, 'C': 1.0}\",\"('B', 'C', 'Ho')\",OTHERS,False\nmp-1176918,\"{'Li': 12.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmvc-13706,\"{'Cr': 3.0, 'O': 8.0}\",\"('Cr', 'O')\",OTHERS,False\nmp-1210164,\"{'Ni': 2.0, 'N': 8.0, 'O': 16.0}\",\"('N', 'Ni', 'O')\",OTHERS,False\nmp-561551,\"{'Y': 4.0, 'Si': 4.0, 'O': 14.0}\",\"('O', 'Si', 'Y')\",OTHERS,False\nmp-29238,\"{'Se': 4.0, 'Ag': 4.0, 'Tl': 4.0}\",\"('Ag', 'Se', 'Tl')\",OTHERS,False\nmp-1191807,\"{'Cu': 8.0, 'Cl': 4.0, 'O': 12.0}\",\"('Cl', 'Cu', 'O')\",OTHERS,False\nmp-683983,\"{'Ta': 16.0, 'O': 32.0}\",\"('O', 'Ta')\",OTHERS,False\nmp-1204030,\"{'Si': 12.0, 'C': 16.0, 'N': 4.0, 'O': 38.0}\",\"('C', 'N', 'O', 'Si')\",OTHERS,False\nmp-1198773,\"{'Yb': 8.0, 'Cr': 8.0, 'O': 40.0}\",\"('Cr', 'O', 'Yb')\",OTHERS,False\nmp-7224,\"{'C': 4.0, 'Th': 2.0}\",\"('C', 'Th')\",OTHERS,False\nmp-1213192,\"{'Dy': 4.0, 'Fe': 34.0, 'C': 6.0}\",\"('C', 'Dy', 'Fe')\",OTHERS,False\nmp-867296,\"{'Re': 4.0, 'P': 4.0, 'O': 20.0}\",\"('O', 'P', 'Re')\",OTHERS,False\nmp-777558,\"{'Li': 32.0, 'Ti': 3.0, 'Cr': 13.0, 'O': 48.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-1188832,\"{'Nd': 4.0, 'Ga': 4.0, 'Pd': 8.0}\",\"('Ga', 'Nd', 'Pd')\",OTHERS,False\nmp-1215656,\"{'Zn': 1.0, 'Fe': 4.0, 'Cu': 1.0, 'O': 8.0}\",\"('Cu', 'Fe', 'O', 'Zn')\",OTHERS,False\nmp-2226,\"{'Pd': 1.0, 'Dy': 1.0}\",\"('Dy', 'Pd')\",OTHERS,False\nmp-1184190,\"{'Er': 1.0, 'Mg': 16.0, 'Al': 12.0}\",\"('Al', 'Er', 'Mg')\",OTHERS,False\nmp-1183917,\"{'Cs': 1.0, 'Mo': 1.0, 'O': 3.0}\",\"('Cs', 'Mo', 'O')\",OTHERS,False\nmp-1205020,\"{'Ca': 1.0, 'Cu': 4.0, 'As': 4.0, 'H': 2.0, 'O': 26.0}\",\"('As', 'Ca', 'Cu', 'H', 'O')\",OTHERS,False\nmp-1178405,\"{'Cs': 4.0, 'Hf': 2.0, 'O': 6.0}\",\"('Cs', 'Hf', 'O')\",OTHERS,False\nmp-1218070,\"{'Ta': 6.0, 'Cr': 1.0, 'C': 3.0, 'S': 6.0}\",\"('C', 'Cr', 'S', 'Ta')\",OTHERS,False\nmp-1213412,\"{'Gd': 16.0, 'Si': 8.0, 'Ni': 8.0, 'Bi': 4.0}\",\"('Bi', 'Gd', 'Ni', 'Si')\",OTHERS,False\nmp-541897,\"{'Cd': 2.0, 'Rb': 4.0, 'Se': 12.0, 'P': 4.0}\",\"('Cd', 'P', 'Rb', 'Se')\",OTHERS,False\nmp-1206747,\"{'Lu': 1.0, 'Tl': 1.0}\",\"('Lu', 'Tl')\",OTHERS,False\nmp-973892,\"{'Eu': 1.0, 'Al': 1.0, 'O': 3.0}\",\"('Al', 'Eu', 'O')\",OTHERS,False\nmp-1198386,\"{'Al': 16.0, 'Mo': 24.0}\",\"('Al', 'Mo')\",OTHERS,False\nmp-1100777,\"{'V': 1.0, 'Te': 1.0, 'O': 3.0}\",\"('O', 'Te', 'V')\",OTHERS,False\nmp-1201340,\"{'U': 4.0, 'P': 8.0, 'H': 8.0, 'C': 4.0, 'O': 52.0}\",\"('C', 'H', 'O', 'P', 'U')\",OTHERS,False\nmp-570480,\"{'Tc': 8.0, 'Br': 32.0}\",\"('Br', 'Tc')\",OTHERS,False\nmp-1093552,\"{'Mg': 2.0, 'Cd': 1.0, 'Pt': 1.0}\",\"('Cd', 'Mg', 'Pt')\",OTHERS,False\nmp-1056955,\"{'Ag': 1.0, 'N': 1.0}\",\"('Ag', 'N')\",OTHERS,False\nmp-710,\"{'P': 1.0, 'Sm': 1.0}\",\"('P', 'Sm')\",OTHERS,False\nmp-1086666,\"{'Sr': 2.0, 'Ta': 1.0, 'In': 1.0, 'O': 6.0}\",\"('In', 'O', 'Sr', 'Ta')\",OTHERS,False\nmp-16281,\"{'O': 14.0, 'Cd': 4.0, 'Sb': 4.0}\",\"('Cd', 'O', 'Sb')\",OTHERS,False\nmp-624417,\"{'Cd': 11.0, 'I': 22.0}\",\"('Cd', 'I')\",OTHERS,False\nmp-1222567,\"{'Li': 2.0, 'Nb': 2.0, 'W': 2.0, 'O': 14.0}\",\"('Li', 'Nb', 'O', 'W')\",OTHERS,False\nmp-1029595,\"{'Na': 12.0, 'Os': 4.0, 'N': 8.0}\",\"('N', 'Na', 'Os')\",OTHERS,False\nmp-1094963,\"{'Ce': 2.0, 'Mg': 2.0}\",\"('Ce', 'Mg')\",OTHERS,False\nmp-1021490,\"{'Sn': 4.0, 'S': 1.0, 'F': 6.0}\",\"('F', 'S', 'Sn')\",OTHERS,False\nmp-1111200,\"{'K': 2.0, 'Tl': 1.0, 'As': 1.0, 'I': 6.0}\",\"('As', 'I', 'K', 'Tl')\",OTHERS,False\nmp-695314,\"{'Ca': 10.0, 'Si': 4.0, 'H': 2.0, 'O': 18.0, 'F': 2.0}\",\"('Ca', 'F', 'H', 'O', 'Si')\",OTHERS,False\nmp-1176983,\"{'Li': 12.0, 'Mn': 2.0, 'V': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1099574,\"{'Ce': 16.0, 'Se': 32.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-1214495,\"{'Ba': 6.0, 'Ti': 2.0, 'O': 10.0}\",\"('Ba', 'O', 'Ti')\",OTHERS,False\nmp-1182967,\"{'Al': 2.0, 'Cu': 4.0, 'As': 2.0, 'O': 24.0}\",\"('Al', 'As', 'Cu', 'O')\",OTHERS,False\nmp-867369,\"{'Tc': 2.0, 'F': 6.0}\",\"('F', 'Tc')\",OTHERS,False\nmp-755692,\"{'Nb': 2.0, 'V': 2.0, 'O': 10.0}\",\"('Nb', 'O', 'V')\",OTHERS,False\nmp-1219459,\"{'Sb': 1.0, 'Te': 1.0}\",\"('Sb', 'Te')\",OTHERS,False\nmp-768407,\"{'Li': 24.0, 'Ti': 5.0, 'Cr': 7.0, 'O': 36.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-1035190,\"{'Mg': 14.0, 'Zn': 1.0, 'Co': 1.0, 'O': 16.0}\",\"('Co', 'Mg', 'O', 'Zn')\",OTHERS,False\nmp-1203220,\"{'In': 8.0, 'Rh': 8.0, 'O': 24.0}\",\"('In', 'O', 'Rh')\",OTHERS,False\nmp-866013,\"{'Dy': 1.0, 'Tm': 1.0, 'Mg': 2.0}\",\"('Dy', 'Mg', 'Tm')\",OTHERS,False\nmp-12553,\"{'Al': 6.0, 'Pr': 2.0}\",\"('Al', 'Pr')\",OTHERS,False\nmvc-1258,\"{'Mg': 4.0, 'Cr': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Cr', 'Mg', 'O', 'P')\",OTHERS,False\nmp-1210149,\"{'Sm': 46.0, 'Cd': 8.0, 'Rh': 14.0}\",\"('Cd', 'Rh', 'Sm')\",OTHERS,False\nmp-722501,\"{'Sn': 4.0, 'H': 12.0, 'S': 16.0, 'N': 16.0, 'Cl': 20.0, 'O': 4.0}\",\"('Cl', 'H', 'N', 'O', 'S', 'Sn')\",OTHERS,False\nmp-560687,\"{'Nb': 12.0, 'Te': 32.0, 'I': 28.0, 'O': 4.0}\",\"('I', 'Nb', 'O', 'Te')\",OTHERS,False\nmp-1008498,{'Ca': 4.0},\"('Ca',)\",OTHERS,False\nmp-1186803,\"{'Pu': 1.0, 'S': 3.0}\",\"('Pu', 'S')\",OTHERS,False\nmp-22965,\"{'Te': 1.0, 'I': 1.0, 'Bi': 1.0}\",\"('Bi', 'I', 'Te')\",OTHERS,False\nmp-1208543,\"{'Tb': 4.0, 'Co': 2.0, 'Pt': 2.0, 'O': 12.0}\",\"('Co', 'O', 'Pt', 'Tb')\",OTHERS,False\nmp-1079779,\"{'Tb': 4.0, 'In': 2.0, 'Cu': 4.0}\",\"('Cu', 'In', 'Tb')\",OTHERS,False\nmp-1078217,\"{'Na': 2.0, 'Fe': 2.0, 'F': 6.0}\",\"('F', 'Fe', 'Na')\",OTHERS,False\nmp-1193698,\"{'Zr': 12.0, 'Fe': 12.0, 'C': 4.0}\",\"('C', 'Fe', 'Zr')\",OTHERS,False\nmp-1192827,\"{'Eu': 16.0, 'In': 6.0}\",\"('Eu', 'In')\",OTHERS,False\nmp-761164,\"{'Li': 4.0, 'Nb': 4.0, 'F': 20.0}\",\"('F', 'Li', 'Nb')\",OTHERS,False\nmp-754117,\"{'Y': 2.0, 'H': 2.0, 'O': 4.0}\",\"('H', 'O', 'Y')\",OTHERS,False\nmp-555560,\"{'Cd': 2.0, 'Te': 2.0, 'Mo': 2.0, 'O': 12.0}\",\"('Cd', 'Mo', 'O', 'Te')\",OTHERS,False\nmp-13501,\"{'C': 2.0, 'Co': 1.0, 'Er': 1.0}\",\"('C', 'Co', 'Er')\",OTHERS,False\nmp-13992,\"{'S': 4.0, 'Cs': 2.0, 'Pt': 3.0}\",\"('Cs', 'Pt', 'S')\",OTHERS,False\nmp-19814,\"{'Ni': 2.0, 'As': 4.0}\",\"('As', 'Ni')\",OTHERS,False\nmp-20828,\"{'Pt': 3.0, 'Pb': 1.0}\",\"('Pb', 'Pt')\",OTHERS,False\nmp-35876,\"{'Ca': 2.0, 'Nd': 4.0, 'S': 8.0}\",\"('Ca', 'Nd', 'S')\",OTHERS,False\nmp-1076151,\"{'Ca': 4.0, 'Ti': 4.0, 'O': 10.0}\",\"('Ca', 'O', 'Ti')\",OTHERS,False\nmp-1099116,\"{'Ce': 1.0, 'Mg': 14.0, 'C': 1.0}\",\"('C', 'Ce', 'Mg')\",OTHERS,False\nmp-23415,\"{'Tl': 4.0, 'Fe': 4.0, 'I': 12.0}\",\"('Fe', 'I', 'Tl')\",OTHERS,False\nmp-1246175,\"{'Ca': 6.0, 'Zr': 4.0, 'N': 8.0}\",\"('Ca', 'N', 'Zr')\",OTHERS,False\nmp-1181826,\"{'Co': 1.0, 'Cu': 1.0, 'P': 2.0, 'O': 7.0}\",\"('Co', 'Cu', 'O', 'P')\",OTHERS,False\nmp-1075724,\"{'Mg': 10.0, 'Si': 18.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-541787,\"{'Na': 32.0, 'Hg': 12.0}\",\"('Hg', 'Na')\",OTHERS,False\nmp-765350,\"{'La': 8.0, 'H': 8.0, 'Se': 24.0, 'O': 80.0}\",\"('H', 'La', 'O', 'Se')\",OTHERS,False\nmp-1184176,\"{'Dy': 4.0, 'Sc': 4.0, 'S': 12.0}\",\"('Dy', 'S', 'Sc')\",OTHERS,False\nmp-1212202,\"{'Mn': 8.0, 'Cr': 12.0, 'N': 8.0, 'O': 48.0}\",\"('Cr', 'Mn', 'N', 'O')\",OTHERS,False\nmp-1200365,\"{'Cs': 4.0, 'Mo': 10.0, 'O': 32.0}\",\"('Cs', 'Mo', 'O')\",OTHERS,False\nmp-1104964,\"{'Lu': 2.0, 'Ni': 8.0, 'As': 4.0}\",\"('As', 'Lu', 'Ni')\",OTHERS,False\nmp-1183595,\"{'Ca': 1.0, 'Yb': 1.0, 'Tl': 2.0}\",\"('Ca', 'Tl', 'Yb')\",OTHERS,False\nmp-1210069,\"{'Na': 1.0, 'Dy': 1.0, 'Pd': 6.0, 'O': 8.0}\",\"('Dy', 'Na', 'O', 'Pd')\",OTHERS,False\nmp-20082,\"{'As': 4.0, 'Rh': 6.0, 'Yb': 1.0}\",\"('As', 'Rh', 'Yb')\",OTHERS,False\nmp-1183340,\"{'Ba': 3.0, 'Ho': 1.0}\",\"('Ba', 'Ho')\",OTHERS,False\nmp-1214186,\"{'C': 12.0, 'I': 4.0, 'F': 8.0}\",\"('C', 'F', 'I')\",OTHERS,False\nmp-543094,\"{'Li': 4.0, 'Fe': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1190199,\"{'Cu': 1.0, 'Sb': 6.0, 'S': 2.0, 'O': 16.0}\",\"('Cu', 'O', 'S', 'Sb')\",OTHERS,False\nmp-19467,\"{'O': 32.0, 'P': 6.0, 'Mo': 6.0, 'Ag': 2.0}\",\"('Ag', 'Mo', 'O', 'P')\",OTHERS,False\nmp-504353,\"{'Li': 2.0, 'O': 24.0, 'P': 8.0, 'Sb': 2.0}\",\"('Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1096596,\"{'Ti': 1.0, 'Cu': 1.0, 'Au': 2.0}\",\"('Au', 'Cu', 'Ti')\",OTHERS,False\nmp-23662,\"{'Li': 8.0, 'B': 8.0, 'H': 32.0, 'O': 32.0}\",\"('B', 'H', 'Li', 'O')\",OTHERS,False\nmp-764989,\"{'Li': 8.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1207893,\"{'V': 5.0, 'Se': 8.0}\",\"('Se', 'V')\",OTHERS,False\nmp-554756,\"{'P': 12.0, 'H': 72.0, 'C': 12.0, 'N': 12.0, 'O': 36.0}\",\"('C', 'H', 'N', 'O', 'P')\",OTHERS,False\nmp-1246486,\"{'Ca': 14.0, 'Re': 2.0, 'N': 12.0}\",\"('Ca', 'N', 'Re')\",OTHERS,False\nmp-849498,\"{'Li': 10.0, 'Mn': 12.0, 'B': 12.0, 'O': 36.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-29922,\"{'O': 40.0, 'P': 4.0, 'Sb': 20.0}\",\"('O', 'P', 'Sb')\",OTHERS,False\nmp-1216294,\"{'U': 2.0, 'Al': 2.0, 'Co': 2.0}\",\"('Al', 'Co', 'U')\",OTHERS,False\nmp-1106389,\"{'K': 2.0, 'Bi': 2.0, 'F': 12.0}\",\"('Bi', 'F', 'K')\",OTHERS,False\nmp-1175781,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-753920,\"{'Tm': 2.0, 'Se': 1.0, 'O': 2.0}\",\"('O', 'Se', 'Tm')\",OTHERS,False\nmp-8341,\"{'O': 40.0, 'Na': 8.0, 'Ge': 8.0, 'Sb': 8.0}\",\"('Ge', 'Na', 'O', 'Sb')\",OTHERS,False\nmp-757511,\"{'Li': 8.0, 'Ni': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-29487,\"{'Cl': 12.0, 'Pd': 6.0}\",\"('Cl', 'Pd')\",OTHERS,False\nmp-22005,\"{'O': 28.0, 'V': 8.0, 'Pb': 8.0}\",\"('O', 'Pb', 'V')\",OTHERS,False\nmp-677233,\"{'Na': 4.0, 'Al': 12.0, 'Tl': 8.0, 'Si': 12.0, 'O': 48.0}\",\"('Al', 'Na', 'O', 'Si', 'Tl')\",OTHERS,False\nmp-1102542,\"{'Hf': 8.0, 'Ni': 2.0, 'P': 2.0}\",\"('Hf', 'Ni', 'P')\",OTHERS,False\nmp-1225482,\"{'La': 1.0, 'Ce': 1.0, 'Al': 2.0, 'O': 6.0}\",\"('Al', 'Ce', 'La', 'O')\",OTHERS,False\nmvc-16792,\"{'Y': 2.0, 'Mn': 4.0, 'S': 8.0}\",\"('Mn', 'S', 'Y')\",OTHERS,False\nmp-770680,\"{'Li': 36.0, 'Mn': 8.0, 'Al': 4.0, 'O': 32.0}\",\"('Al', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-12497,\"{'Cd': 2.0, 'Te': 6.0, 'Cs': 2.0, 'Sm': 2.0}\",\"('Cd', 'Cs', 'Sm', 'Te')\",OTHERS,False\nmp-1205553,\"{'Sr': 2.0, 'Lu': 1.0, 'Ta': 1.0, 'O': 6.0}\",\"('Lu', 'O', 'Sr', 'Ta')\",OTHERS,False\nmp-985288,\"{'As': 6.0, 'W': 2.0}\",\"('As', 'W')\",OTHERS,False\nmp-556631,\"{'K': 4.0, 'Zr': 4.0, 'Sn': 4.0, 'F': 28.0}\",\"('F', 'K', 'Sn', 'Zr')\",OTHERS,False\nmp-690794,\"{'Sr': 2.0, 'H': 1.0, 'N': 1.0}\",\"('H', 'N', 'Sr')\",OTHERS,False\nmp-1007636,\"{'K': 1.0, 'Lu': 1.0, 'S': 2.0}\",\"('K', 'Lu', 'S')\",OTHERS,False\nmp-1176171,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-755601,\"{'Fe': 6.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-559638,\"{'K': 12.0, 'Np': 4.0, 'O': 8.0, 'F': 20.0}\",\"('F', 'K', 'Np', 'O')\",OTHERS,False\nmp-1186475,\"{'Pm': 2.0, 'Mg': 1.0, 'Ge': 1.0}\",\"('Ge', 'Mg', 'Pm')\",OTHERS,False\nmp-1185635,\"{'Mg': 149.0, 'Tl': 1.0}\",\"('Mg', 'Tl')\",OTHERS,False\nmp-1225147,\"{'Fe': 4.0, 'Ni': 4.0, 'Pd': 1.0, 'S': 8.0}\",\"('Fe', 'Ni', 'Pd', 'S')\",OTHERS,False\nmp-4322,\"{'B': 2.0, 'Co': 2.0, 'Pr': 1.0}\",\"('B', 'Co', 'Pr')\",OTHERS,False\nmp-696989,\"{'Na': 2.0, 'P': 2.0, 'H': 10.0, 'C': 4.0, 'S': 2.0, 'N': 6.0, 'O': 8.0}\",\"('C', 'H', 'N', 'Na', 'O', 'P', 'S')\",OTHERS,False\nmp-1113667,\"{'Rb': 2.0, 'Bi': 1.0, 'Au': 1.0, 'Cl': 6.0}\",\"('Au', 'Bi', 'Cl', 'Rb')\",OTHERS,False\nmp-1093629,\"{'Mn': 1.0, 'Al': 2.0, 'Fe': 1.0}\",\"('Al', 'Fe', 'Mn')\",OTHERS,False\nmp-707845,\"{'K': 12.0, 'Zr': 4.0, 'H': 4.0, 'S': 4.0, 'O': 20.0, 'F': 20.0}\",\"('F', 'H', 'K', 'O', 'S', 'Zr')\",OTHERS,False\nmp-32502,\"{'Li': 2.0, 'V': 2.0, 'P': 8.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-978544,\"{'Sm': 1.0, 'Lu': 1.0, 'Tl': 2.0}\",\"('Lu', 'Sm', 'Tl')\",OTHERS,False\nmp-1184930,\"{'Ho': 2.0, 'Lu': 6.0}\",\"('Ho', 'Lu')\",OTHERS,False\nmp-1173714,\"{'Na': 8.0, 'Al': 6.0, 'Si': 6.0, 'N': 2.0, 'O': 28.0}\",\"('Al', 'N', 'Na', 'O', 'Si')\",OTHERS,False\nmp-11467,\"{'Nd': 1.0, 'Hg': 1.0}\",\"('Hg', 'Nd')\",OTHERS,False\nmp-1202582,\"{'Mo': 4.0, 'Rh': 4.0, 'N': 20.0, 'Cl': 4.0, 'O': 16.0}\",\"('Cl', 'Mo', 'N', 'O', 'Rh')\",OTHERS,False\nmp-1246734,\"{'Fe': 16.0, 'Si': 16.0, 'N': 32.0}\",\"('Fe', 'N', 'Si')\",OTHERS,False\nmp-559764,\"{'Nd': 12.0, 'Si': 8.0, 'Cl': 4.0, 'O': 32.0}\",\"('Cl', 'Nd', 'O', 'Si')\",OTHERS,False\nmp-1102114,\"{'Ta': 4.0, 'N': 8.0}\",\"('N', 'Ta')\",OTHERS,False\nmp-1112617,\"{'Cs': 2.0, 'Pr': 1.0, 'Cu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Cu', 'Pr')\",OTHERS,False\nmp-1037960,\"{'Ca': 1.0, 'Mg': 30.0, 'Cr': 1.0, 'O': 32.0}\",\"('Ca', 'Cr', 'Mg', 'O')\",OTHERS,False\nmp-850786,\"{'Li': 6.0, 'Mn': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-20547,\"{'Ca': 12.0, 'Fe': 24.0, 'O': 48.0}\",\"('Ca', 'Fe', 'O')\",OTHERS,False\nmp-1247673,\"{'Ca': 8.0, 'Ti': 3.0, 'Mn': 5.0, 'O': 21.0}\",\"('Ca', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-1173025,\"{'Ag': 6.0, 'S': 2.0, 'I': 2.0}\",\"('Ag', 'I', 'S')\",OTHERS,False\nmp-1074466,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1188666,\"{'Sm': 6.0, 'Cu': 6.0, 'Sb': 8.0}\",\"('Cu', 'Sb', 'Sm')\",OTHERS,False\nmp-2363,\"{'Mo': 4.0, 'Hf': 2.0}\",\"('Hf', 'Mo')\",OTHERS,False\nmp-973662,\"{'Lu': 2.0, 'Zn': 1.0, 'Cu': 1.0}\",\"('Cu', 'Lu', 'Zn')\",OTHERS,False\nmp-1232329,\"{'K': 2.0, 'Zn': 2.0, 'Cu': 1.0, 'S': 2.0, 'O': 2.0}\",\"('Cu', 'K', 'O', 'S', 'Zn')\",OTHERS,False\nmp-1102396,\"{'Ba': 8.0, 'In': 4.0}\",\"('Ba', 'In')\",OTHERS,False\nmp-1221960,\"{'Mn': 1.0, 'Fe': 2.0, 'Pb': 2.0, 'O': 3.0, 'F': 12.0}\",\"('F', 'Fe', 'Mn', 'O', 'Pb')\",OTHERS,False\nmp-1210466,\"{'Na': 4.0, 'Mg': 2.0, 'Sc': 2.0, 'F': 14.0}\",\"('F', 'Mg', 'Na', 'Sc')\",OTHERS,False\nmp-1227504,\"{'Bi': 8.0, 'Se': 8.0, 'S': 4.0}\",\"('Bi', 'S', 'Se')\",OTHERS,False\nmvc-20,\"{'Nb': 4.0, 'Te': 2.0, 'O': 16.0}\",\"('Nb', 'O', 'Te')\",OTHERS,False\nmp-758588,\"{'K': 8.0, 'Li': 6.0, 'Fe': 4.0, 'O': 16.0}\",\"('Fe', 'K', 'Li', 'O')\",OTHERS,False\nmp-769110,\"{'Li': 4.0, 'Co': 8.0, 'S': 12.0, 'O': 48.0}\",\"('Co', 'Li', 'O', 'S')\",OTHERS,False\nmp-1246819,\"{'In': 1.0, 'C': 1.0, 'N': 2.0}\",\"('C', 'In', 'N')\",OTHERS,False\nmp-1040297,\"{'K': 1.0, 'Mg': 30.0, 'B': 1.0, 'O': 31.0}\",\"('B', 'K', 'Mg', 'O')\",OTHERS,False\nmp-12602,\"{'Zn': 5.0, 'Pr': 1.0}\",\"('Pr', 'Zn')\",OTHERS,False\nmp-1208877,\"{'Sr': 2.0, 'Eu': 1.0, 'Ta': 1.0, 'Cu': 2.0, 'O': 8.0}\",\"('Cu', 'Eu', 'O', 'Sr', 'Ta')\",OTHERS,False\nmp-1188001,\"{'Zr': 2.0, 'Tc': 1.0, 'Ir': 1.0}\",\"('Ir', 'Tc', 'Zr')\",OTHERS,False\nmp-27628,\"{'Cl': 8.0, 'Te': 12.0}\",\"('Cl', 'Te')\",OTHERS,False\nmp-1111912,\"{'K': 2.0, 'Rb': 1.0, 'Ir': 1.0, 'F': 6.0}\",\"('F', 'Ir', 'K', 'Rb')\",OTHERS,False\nmp-11291,\"{'Cd': 1.0, 'Ce': 1.0}\",\"('Cd', 'Ce')\",OTHERS,False\nmp-1220232,\"{'Ni': 10.0, 'Ge': 2.0, 'B': 4.0, 'O': 20.0}\",\"('B', 'Ge', 'Ni', 'O')\",OTHERS,False\nmp-4393,\"{'O': 68.0, 'Cs': 16.0, 'U': 20.0}\",\"('Cs', 'O', 'U')\",OTHERS,False\nmp-862635,\"{'Sc': 1.0, 'Sb': 1.0, 'Rh': 2.0}\",\"('Rh', 'Sb', 'Sc')\",OTHERS,False\nmp-1259193,\"{'Sr': 4.0, 'Y': 2.0, 'Mn': 4.0, 'Al': 2.0, 'O': 14.0}\",\"('Al', 'Mn', 'O', 'Sr', 'Y')\",OTHERS,False\nmp-8387,\"{'O': 6.0, 'Te': 1.0, 'Tl': 6.0}\",\"('O', 'Te', 'Tl')\",OTHERS,False\nmp-31245,\"{'O': 22.0, 'Te': 8.0, 'Tb': 4.0}\",\"('O', 'Tb', 'Te')\",OTHERS,False\nmp-558153,\"{'Ba': 24.0, 'Nb': 12.0, 'O': 18.0, 'F': 72.0}\",\"('Ba', 'F', 'Nb', 'O')\",OTHERS,False\nmp-31147,\"{'Si': 2.0, 'Zn': 2.0, 'Ba': 2.0}\",\"('Ba', 'Si', 'Zn')\",OTHERS,False\nmp-1027143,\"{'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 6.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-1079307,\"{'Dy': 3.0, 'Co': 2.0, 'Ge': 4.0}\",\"('Co', 'Dy', 'Ge')\",OTHERS,False\nmp-849522,\"{'Li': 16.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1215607,\"{'Zr': 2.0, 'Ti': 1.0, 'Sn': 1.0, 'O': 8.0}\",\"('O', 'Sn', 'Ti', 'Zr')\",OTHERS,False\nmp-1211000,\"{'Li': 2.0, 'Sm': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Li', 'O', 'Sm', 'W')\",OTHERS,False\nmp-1078813,\"{'Y': 3.0, 'Zn': 3.0, 'Pd': 3.0}\",\"('Pd', 'Y', 'Zn')\",OTHERS,False\nmp-740746,\"{'Na': 4.0, 'H': 8.0, 'Br': 4.0, 'O': 20.0}\",\"('Br', 'H', 'Na', 'O')\",OTHERS,False\nmp-1072004,\"{'U': 2.0, 'Co': 2.0, 'Ge': 2.0}\",\"('Co', 'Ge', 'U')\",OTHERS,False\nmp-673681,\"{'Ta': 22.0, 'O': 4.0}\",\"('O', 'Ta')\",OTHERS,False\nmp-735521,\"{'Mn': 4.0, 'H': 24.0, 'O': 12.0, 'F': 12.0}\",\"('F', 'H', 'Mn', 'O')\",OTHERS,False\nmp-581635,\"{'Cs': 6.0, 'Te': 34.0, 'Mo': 30.0}\",\"('Cs', 'Mo', 'Te')\",OTHERS,False\nmp-1077288,\"{'Na': 4.0, 'Cl': 2.0}\",\"('Cl', 'Na')\",OTHERS,False\nmp-758298,\"{'Li': 8.0, 'Ni': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1209465,\"{'Rb': 4.0, 'Mo': 2.0, 'O': 4.0, 'F': 8.0}\",\"('F', 'Mo', 'O', 'Rb')\",OTHERS,False\nmp-1187161,\"{'Sr': 6.0, 'Pm': 2.0}\",\"('Pm', 'Sr')\",OTHERS,False\nmp-1174413,\"{'Li': 6.0, 'Mn': 2.0, 'Co': 2.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-3775,\"{'F': 18.0, 'Na': 6.0, 'Si': 3.0}\",\"('F', 'Na', 'Si')\",OTHERS,False\nmp-510083,\"{'Tb': 8.0, 'Ti': 12.0, 'Si': 16.0}\",\"('Si', 'Tb', 'Ti')\",OTHERS,False\nmp-866159,\"{'Y': 1.0, 'Zr': 1.0, 'Ru': 2.0}\",\"('Ru', 'Y', 'Zr')\",OTHERS,False\nmp-686466,\"{'Pr': 32.0, 'Si': 32.0, 'N': 54.0, 'Cl': 6.0, 'O': 28.0}\",\"('Cl', 'N', 'O', 'Pr', 'Si')\",OTHERS,False\nmp-746692,\"{'K': 4.0, 'Co': 6.0, 'P': 8.0, 'H': 8.0, 'O': 32.0}\",\"('Co', 'H', 'K', 'O', 'P')\",OTHERS,False\nmp-1114468,\"{'Rb': 2.0, 'Al': 1.0, 'Tl': 1.0, 'F': 6.0}\",\"('Al', 'F', 'Rb', 'Tl')\",OTHERS,False\nmp-1182659,\"{'Cu': 4.0, 'H': 28.0, 'C': 12.0, 'S': 4.0, 'N': 12.0, 'O': 16.0}\",\"('C', 'Cu', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-1213233,\"{'Dy': 8.0, 'Ni': 2.0}\",\"('Dy', 'Ni')\",OTHERS,False\nmp-972868,\"{'Si': 2.0, 'Au': 6.0}\",\"('Au', 'Si')\",OTHERS,False\nmp-1181940,\"{'Cd': 1.0, 'Cl': 2.0}\",\"('Cd', 'Cl')\",OTHERS,False\nmp-1106156,\"{'Cs': 4.0, 'Hg': 6.0, 'Se': 8.0}\",\"('Cs', 'Hg', 'Se')\",OTHERS,False\nmp-778232,\"{'Li': 8.0, 'V': 12.0, 'Cr': 8.0, 'O': 48.0}\",\"('Cr', 'Li', 'O', 'V')\",OTHERS,False\nmp-849641,\"{'V': 8.0, 'O': 12.0, 'F': 4.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-1112651,\"{'Cs': 3.0, 'In': 1.0, 'Br': 6.0}\",\"('Br', 'Cs', 'In')\",OTHERS,False\nmp-685168,\"{'Be': 16.0, 'F': 32.0}\",\"('Be', 'F')\",OTHERS,False\nmp-1220473,\"{'Nb': 2.0, 'Tl': 2.0, 'Te': 2.0, 'O': 12.0}\",\"('Nb', 'O', 'Te', 'Tl')\",OTHERS,False\nmp-530184,\"{'Al': 16.0, 'Ni': 8.0, 'O': 32.0}\",\"('Al', 'Ni', 'O')\",OTHERS,False\nmp-2970,\"{'O': 8.0, 'Na': 8.0, 'Ge': 2.0}\",\"('Ge', 'Na', 'O')\",OTHERS,False\nmp-556705,\"{'As': 4.0, 'S': 4.0, 'Cl': 12.0, 'F': 24.0}\",\"('As', 'Cl', 'F', 'S')\",OTHERS,False\nmp-1218571,\"{'Sr': 3.0, 'Li': 4.0, 'Nb': 6.0, 'O': 20.0}\",\"('Li', 'Nb', 'O', 'Sr')\",OTHERS,False\nmp-754976,\"{'Cs': 2.0, 'Be': 1.0, 'O': 2.0}\",\"('Be', 'Cs', 'O')\",OTHERS,False\nmp-777532,\"{'Li': 32.0, 'Ti': 5.0, 'Cr': 11.0, 'O': 48.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-865753,\"{'Yb': 1.0, 'Er': 1.0, 'Pd': 2.0}\",\"('Er', 'Pd', 'Yb')\",OTHERS,False\nmp-1180739,\"{'La': 4.0, 'Ga': 4.0, 'O': 12.0}\",\"('Ga', 'La', 'O')\",OTHERS,False\nmp-1228871,\"{'Cd': 1.0, 'Fe': 4.0, 'Cu': 10.0, 'Sn': 5.0, 'Se': 20.0}\",\"('Cd', 'Cu', 'Fe', 'Se', 'Sn')\",OTHERS,False\nmp-557597,\"{'K': 2.0, 'Ca': 1.0, 'N': 4.0, 'O': 8.0}\",\"('Ca', 'K', 'N', 'O')\",OTHERS,False\nmp-752398,\"{'Ba': 1.0, 'Cu': 1.0, 'O': 2.0}\",\"('Ba', 'Cu', 'O')\",OTHERS,False\nmp-755103,\"{'Li': 4.0, 'Fe': 4.0, 'F': 12.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-21608,\"{'B': 6.0, 'Ni': 21.0, 'Tm': 2.0}\",\"('B', 'Ni', 'Tm')\",OTHERS,False\nmvc-10576,\"{'Ba': 2.0, 'Mg': 3.0, 'Tl': 2.0, 'Sn': 4.0, 'O': 12.0}\",\"('Ba', 'Mg', 'O', 'Sn', 'Tl')\",OTHERS,False\nmp-1006328,\"{'Li': 8.0, 'Ce': 8.0, 'Sn': 8.0}\",\"('Ce', 'Li', 'Sn')\",OTHERS,False\nmp-27713,\"{'O': 1.0, 'V': 1.0, 'Br': 2.0}\",\"('Br', 'O', 'V')\",OTHERS,False\nmp-1244982,\"{'Al': 40.0, 'O': 60.0}\",\"('Al', 'O')\",OTHERS,False\nmp-29618,\"{'P': 6.0, 'Ni': 2.0, 'W': 4.0}\",\"('Ni', 'P', 'W')\",OTHERS,False\nmp-675419,\"{'Li': 2.0, 'Pr': 2.0, 'S': 4.0}\",\"('Li', 'Pr', 'S')\",OTHERS,False\nmvc-3060,\"{'Ba': 2.0, 'Mn': 3.0, 'Tl': 2.0, 'Zn': 2.0, 'O': 10.0}\",\"('Ba', 'Mn', 'O', 'Tl', 'Zn')\",OTHERS,False\nmp-1100672,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-768293,\"{'Lu': 8.0, 'Se': 8.0, 'O': 24.0}\",\"('Lu', 'O', 'Se')\",OTHERS,False\nmp-1189443,\"{'H': 4.0, 'N': 4.0, 'F': 8.0}\",\"('F', 'H', 'N')\",OTHERS,False\nmp-754041,\"{'Gd': 4.0, 'Hf': 2.0, 'O': 10.0}\",\"('Gd', 'Hf', 'O')\",OTHERS,False\nmp-1196472,\"{'Pr': 8.0, 'U': 4.0, 'S': 20.0}\",\"('Pr', 'S', 'U')\",OTHERS,False\nmp-907,\"{'O': 49.0, 'W': 18.0}\",\"('O', 'W')\",OTHERS,False\nmp-1247466,\"{'Mg': 2.0, 'Sc': 3.0, 'Cr': 1.0, 'S': 8.0}\",\"('Cr', 'Mg', 'S', 'Sc')\",OTHERS,False\nmp-561179,\"{'Ba': 8.0, 'Cu': 4.0, 'I': 4.0, 'O': 8.0}\",\"('Ba', 'Cu', 'I', 'O')\",OTHERS,False\nmp-1702,\"{'Rh': 4.0, 'La': 2.0}\",\"('La', 'Rh')\",OTHERS,False\nmp-850985,\"{'Li': 4.0, 'Fe': 4.0, 'P': 8.0, 'H': 4.0, 'O': 28.0}\",\"('Fe', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-1226856,\"{'Ce': 3.0, 'Nd': 1.0, 'C': 8.0}\",\"('C', 'Ce', 'Nd')\",OTHERS,False\nmp-541785,\"{'Ge': 2.0, 'Pd': 2.0, 'S': 6.0}\",\"('Ge', 'Pd', 'S')\",OTHERS,False\nmp-1001784,\"{'Li': 1.0, 'Ti': 1.0, 'S': 2.0}\",\"('Li', 'S', 'Ti')\",OTHERS,False\nmp-1203368,\"{'Zn': 48.0, 'As': 32.0}\",\"('As', 'Zn')\",OTHERS,False\nmp-27077,\"{'Li': 14.0, 'O': 64.0, 'P': 18.0, 'Cr': 8.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1198461,\"{'Na': 80.0, 'Fe': 16.0, 'P': 32.0, 'O': 128.0, 'F': 32.0}\",\"('F', 'Fe', 'Na', 'O', 'P')\",OTHERS,False\nmp-1228042,\"{'Ca': 4.0, 'Eu': 2.0, 'Cu': 4.0, 'O': 12.0}\",\"('Ca', 'Cu', 'Eu', 'O')\",OTHERS,False\nmp-580329,\"{'Pu': 3.0, 'Sn': 1.0}\",\"('Pu', 'Sn')\",OTHERS,False\nmp-743619,\"{'Co': 2.0, 'H': 12.0, 'C': 4.0, 'S': 4.0, 'N': 4.0, 'O': 6.0}\",\"('C', 'Co', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-768232,\"{'Rb': 12.0, 'Sb': 4.0, 'O': 12.0}\",\"('O', 'Rb', 'Sb')\",OTHERS,False\nmp-705194,\"{'Mn': 16.0, 'Sn': 8.0, 'C': 80.0, 'Br': 8.0, 'O': 80.0}\",\"('Br', 'C', 'Mn', 'O', 'Sn')\",OTHERS,False\nmp-1216288,\"{'W': 12.0, 'N': 3.0, 'O': 36.0}\",\"('N', 'O', 'W')\",OTHERS,False\nmp-705871,\"{'Ca': 14.0, 'Al': 6.0, 'Si': 20.0, 'N': 42.0}\",\"('Al', 'Ca', 'N', 'Si')\",OTHERS,False\nmp-774348,\"{'Li': 6.0, 'Mn': 2.0, 'Fe': 4.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1245231,\"{'B': 50.0, 'N': 50.0}\",\"('B', 'N')\",OTHERS,False\nmp-1174645,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-29584,\"{'Be': 1.0, 'K': 4.0, 'As': 2.0}\",\"('As', 'Be', 'K')\",OTHERS,False\nmp-1198503,\"{'U': 2.0, 'Zn': 40.0, 'Rh': 4.0}\",\"('Rh', 'U', 'Zn')\",OTHERS,False\nmvc-10098,\"{'Zn': 6.0, 'Cr': 12.0, 'O': 24.0}\",\"('Cr', 'O', 'Zn')\",OTHERS,False\nmp-1222879,\"{'La': 1.0, 'Mn': 1.0, 'Ni': 4.0}\",\"('La', 'Mn', 'Ni')\",OTHERS,False\nmp-634378,\"{'Na': 4.0, 'H': 4.0, 'S': 4.0, 'O': 16.0}\",\"('H', 'Na', 'O', 'S')\",OTHERS,False\nmp-558281,\"{'F': 8.0, 'Cr': 2.0, 'Sr': 2.0}\",\"('Cr', 'F', 'Sr')\",OTHERS,False\nmp-1178661,\"{'Yb': 2.0, 'Mo': 2.0, 'Cl': 2.0, 'O': 8.0}\",\"('Cl', 'Mo', 'O', 'Yb')\",OTHERS,False\nmp-1174818,\"{'Li': 6.0, 'Mn': 3.0, 'Co': 1.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-19844,\"{'Na': 1.0, 'Fe': 4.0, 'Sb': 12.0}\",\"('Fe', 'Na', 'Sb')\",OTHERS,False\nmp-1191530,\"{'Er': 6.0, 'Ga': 2.0, 'Co': 2.0, 'S': 14.0}\",\"('Co', 'Er', 'Ga', 'S')\",OTHERS,False\nmp-1186326,\"{'Nd': 1.0, 'Re': 1.0, 'O': 3.0}\",\"('Nd', 'O', 'Re')\",OTHERS,False\nmp-554243,\"{'Si': 6.0, 'O': 12.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1178513,\"{'Ba': 2.0, 'Sn': 2.0, 'O': 6.0}\",\"('Ba', 'O', 'Sn')\",OTHERS,False\nmp-775155,\"{'Li': 12.0, 'Fe': 3.0, 'O': 3.0, 'F': 15.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-773119,\"{'Na': 4.0, 'Mn': 2.0, 'As': 2.0, 'C': 2.0, 'O': 14.0}\",\"('As', 'C', 'Mn', 'Na', 'O')\",OTHERS,False\nmp-30094,\"{'H': 16.0, 'C': 8.0, 'N': 16.0}\",\"('C', 'H', 'N')\",OTHERS,False\nmp-1219720,\"{'Pt': 1.0, 'Se': 1.0, 'S': 1.0}\",\"('Pt', 'S', 'Se')\",OTHERS,False\nmvc-10215,\"{'Ho': 2.0, 'Mn': 4.0, 'Zn': 2.0, 'O': 12.0}\",\"('Ho', 'Mn', 'O', 'Zn')\",OTHERS,False\nmp-763331,\"{'Li': 2.0, 'Mn': 4.0, 'F': 10.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-11417,\"{'Ga': 2.0, 'Tb': 2.0}\",\"('Ga', 'Tb')\",OTHERS,False\nmp-776391,\"{'Li': 4.0, 'Fe': 3.0, 'Co': 3.0, 'Cu': 2.0, 'O': 16.0}\",\"('Co', 'Cu', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-866163,\"{'Y': 1.0, 'In': 1.0, 'Rh': 2.0}\",\"('In', 'Rh', 'Y')\",OTHERS,False\nmp-1208590,\"{'Ta': 1.0, 'In': 1.0, 'Se': 2.0}\",\"('In', 'Se', 'Ta')\",OTHERS,False\nmp-556600,\"{'Cs': 4.0, 'S': 8.0, 'N': 12.0, 'O': 16.0}\",\"('Cs', 'N', 'O', 'S')\",OTHERS,False\nmp-20529,\"{'O': 18.0, 'Na': 2.0, 'Ba': 6.0, 'Ir': 4.0}\",\"('Ba', 'Ir', 'Na', 'O')\",OTHERS,False\nmp-1210859,\"{'Li': 1.0, 'Ti': 1.0, 'S': 2.0, 'O': 1.0}\",\"('Li', 'O', 'S', 'Ti')\",OTHERS,False\nmp-777833,\"{'Fe': 10.0, 'O': 4.0, 'F': 16.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-761192,\"{'Li': 4.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-8066,\"{'Cu': 18.0, 'As': 6.0}\",\"('As', 'Cu')\",OTHERS,False\nmp-1174255,\"{'Li': 6.0, 'Mn': 2.0, 'Co': 2.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-757590,\"{'Li': 8.0, 'Sn': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-29749,\"{'Ni': 10.0, 'Ga': 6.0, 'Ge': 4.0}\",\"('Ga', 'Ge', 'Ni')\",OTHERS,False\nmp-771330,\"{'Mn': 4.0, 'I': 8.0, 'O': 24.0}\",\"('I', 'Mn', 'O')\",OTHERS,False\nmp-1224395,\"{'Hf': 1.0, 'Al': 6.0, 'Fe': 6.0}\",\"('Al', 'Fe', 'Hf')\",OTHERS,False\nmp-1246997,\"{'Nb': 2.0, 'Cr': 6.0, 'Ag': 4.0, 'S': 16.0}\",\"('Ag', 'Cr', 'Nb', 'S')\",OTHERS,False\nmp-1068510,\"{'In': 2.0, 'Te': 3.0}\",\"('In', 'Te')\",OTHERS,False\nmp-1025448,\"{'Y': 4.0, 'Pt': 4.0}\",\"('Pt', 'Y')\",OTHERS,False\nmp-1177560,\"{'Li': 12.0, 'Mn': 4.0, 'V': 4.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1079891,\"{'Ba': 4.0, 'Br': 4.0, 'O': 2.0}\",\"('Ba', 'Br', 'O')\",OTHERS,False\nmp-1039895,\"{'Rb': 1.0, 'Mg': 30.0, 'B': 1.0, 'O': 31.0}\",\"('B', 'Mg', 'O', 'Rb')\",OTHERS,False\nmp-775126,\"{'Mn': 12.0, 'O': 7.0, 'F': 17.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-560939,\"{'Na': 4.0, 'La': 4.0, 'P': 8.0, 'O': 28.0}\",\"('La', 'Na', 'O', 'P')\",OTHERS,False\nmp-743952,\"{'Mo': 8.0, 'H': 12.0, 'C': 16.0, 'O': 32.0}\",\"('C', 'H', 'Mo', 'O')\",OTHERS,False\nmvc-13320,\"{'Sr': 4.0, 'Y': 2.0, 'Cr': 4.0, 'O': 14.0}\",\"('Cr', 'O', 'Sr', 'Y')\",OTHERS,False\nmp-755907,\"{'Co': 8.0, 'O': 4.0, 'F': 12.0}\",\"('Co', 'F', 'O')\",OTHERS,False\nmp-16695,\"{'O': 28.0, 'P': 8.0, 'K': 8.0, 'Zn': 4.0}\",\"('K', 'O', 'P', 'Zn')\",OTHERS,False\nmp-28673,\"{'O': 24.0, 'P': 16.0, 'S': 4.0}\",\"('O', 'P', 'S')\",OTHERS,False\nmp-759278,\"{'Li': 8.0, 'Cu': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-1220225,\"{'Nd': 2.0, 'Cu': 2.0, 'Ag': 2.0}\",\"('Ag', 'Cu', 'Nd')\",OTHERS,False\nmp-504900,\"{'Eu': 2.0, 'Sb': 4.0, 'Pd': 4.0}\",\"('Eu', 'Pd', 'Sb')\",OTHERS,False\nmp-1177698,\"{'Li': 12.0, 'Mn': 8.0, 'P': 16.0, 'O': 56.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-675063,\"{'K': 6.0, 'Ba': 12.0, 'As': 30.0}\",\"('As', 'Ba', 'K')\",OTHERS,False\nmp-608777,\"{'Eu': 2.0, 'In': 4.0, 'As': 4.0}\",\"('As', 'Eu', 'In')\",OTHERS,False\nmp-1200525,\"{'Cs': 4.0, 'Fe': 4.0, 'P': 6.0, 'O': 16.0, 'F': 14.0}\",\"('Cs', 'F', 'Fe', 'O', 'P')\",OTHERS,False\nmp-1076062,\"{'Sr': 7.0, 'Ca': 1.0, 'Fe': 5.0, 'Co': 3.0, 'O': 24.0}\",\"('Ca', 'Co', 'Fe', 'O', 'Sr')\",OTHERS,False\nmp-1096118,\"{'Sc': 1.0, 'Cd': 2.0, 'Ag': 1.0}\",\"('Ag', 'Cd', 'Sc')\",OTHERS,False\nmp-22514,\"{'Mn': 4.0, 'Sn': 2.0}\",\"('Mn', 'Sn')\",OTHERS,False\nmp-1209976,\"{'Nd': 16.0, 'Cd': 4.0, 'Pd': 4.0}\",\"('Cd', 'Nd', 'Pd')\",OTHERS,False\nmp-1226201,\"{'Cu': 7.0, 'Te': 2.0, 'S': 2.0, 'O': 20.0}\",\"('Cu', 'O', 'S', 'Te')\",OTHERS,False\nmp-560322,\"{'K': 4.0, 'Ru': 2.0, 'N': 6.0, 'Cl': 6.0, 'O': 10.0}\",\"('Cl', 'K', 'N', 'O', 'Ru')\",OTHERS,False\nmp-9675,\"{'B': 2.0, 'P': 4.0, 'Cs': 6.0}\",\"('B', 'Cs', 'P')\",OTHERS,False\nmp-1215605,\"{'Yb': 2.0, 'Ag': 2.0, 'Sn': 2.0}\",\"('Ag', 'Sn', 'Yb')\",OTHERS,False\nmp-1078811,\"{'Nb': 4.0, 'Ge': 2.0, 'C': 2.0}\",\"('C', 'Ge', 'Nb')\",OTHERS,False\nmp-14780,\"{'Na': 12.0, 'Mn': 2.0, 'Se': 8.0}\",\"('Mn', 'Na', 'Se')\",OTHERS,False\nmp-1218153,\"{'Sr': 1.0, 'Li': 1.0, 'Al': 1.0, 'Sb': 2.0}\",\"('Al', 'Li', 'Sb', 'Sr')\",OTHERS,False\nmp-540914,\"{'K': 12.0, 'Mn': 4.0, 'O': 12.0}\",\"('K', 'Mn', 'O')\",OTHERS,False\nmp-18099,\"{'F': 20.0, 'Sb': 4.0, 'Ba': 4.0}\",\"('Ba', 'F', 'Sb')\",OTHERS,False\nmp-1201031,\"{'Zn': 4.0, 'As': 8.0, 'S': 16.0, 'O': 32.0, 'F': 48.0}\",\"('As', 'F', 'O', 'S', 'Zn')\",OTHERS,False\nmp-694629,\"{'V': 9.0, 'P': 12.0, 'O': 48.0}\",\"('O', 'P', 'V')\",OTHERS,False\nmp-1224233,\"{'Ho': 3.0, 'Mn': 3.0, 'Ga': 2.0, 'Ge': 1.0}\",\"('Ga', 'Ge', 'Ho', 'Mn')\",OTHERS,False\nmp-1189135,\"{'Dy': 6.0, 'Cu': 6.0, 'Sb': 8.0}\",\"('Cu', 'Dy', 'Sb')\",OTHERS,False\nmp-557482,\"{'Ca': 10.0, 'As': 6.0, 'O': 24.0, 'F': 2.0}\",\"('As', 'Ca', 'F', 'O')\",OTHERS,False\nmp-1027147,\"{'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-1218062,\"{'Ta': 3.0, 'W': 1.0, 'S': 8.0}\",\"('S', 'Ta', 'W')\",OTHERS,False\nmp-1224078,\"{'In': 2.0, 'Fe': 2.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Fe', 'In', 'O')\",OTHERS,False\nmvc-157,\"{'Mg': 1.0, 'W': 4.0, 'O': 8.0}\",\"('Mg', 'O', 'W')\",OTHERS,False\nmp-21416,\"{'Al': 4.0, 'Pu': 2.0}\",\"('Al', 'Pu')\",OTHERS,False\nmp-9842,\"{'C': 4.0, 'O': 12.0, 'Rb': 2.0, 'Sm': 2.0}\",\"('C', 'O', 'Rb', 'Sm')\",OTHERS,False\nmp-16338,\"{'Si': 1.0, 'S': 8.0, 'Ga': 1.0, 'Mo': 4.0}\",\"('Ga', 'Mo', 'S', 'Si')\",OTHERS,False\nmp-568598,\"{'Cu': 2.0, 'Hg': 1.0, 'I': 4.0}\",\"('Cu', 'Hg', 'I')\",OTHERS,False\nmp-1080556,\"{'Eu': 2.0, 'Ni': 2.0, 'Ge': 4.0}\",\"('Eu', 'Ge', 'Ni')\",OTHERS,False\nmp-1034626,\"{'Na': 1.0, 'Mg': 14.0, 'B': 1.0, 'O': 16.0}\",\"('B', 'Mg', 'Na', 'O')\",OTHERS,False\nmp-21833,\"{'P': 24.0, 'Mo': 32.0}\",\"('Mo', 'P')\",OTHERS,False\nmp-540923,\"{'Ba': 12.0, 'Sn': 4.0, 'P': 12.0}\",\"('Ba', 'P', 'Sn')\",OTHERS,False\nmp-1218331,\"{'Sr': 3.0, 'Ca': 1.0, 'Si': 8.0}\",\"('Ca', 'Si', 'Sr')\",OTHERS,False\nmp-1216976,\"{'Tl': 5.0, 'Sb': 10.0, 'As': 3.0, 'S': 22.0}\",\"('As', 'S', 'Sb', 'Tl')\",OTHERS,False\nmp-1214523,\"{'Be': 52.0, 'Mo': 4.0}\",\"('Be', 'Mo')\",OTHERS,False\nmp-779427,\"{'Sm': 4.0, 'V': 4.0, 'O': 14.0}\",\"('O', 'Sm', 'V')\",OTHERS,False\nmp-1193529,\"{'Pr': 2.0, 'Be': 26.0}\",\"('Be', 'Pr')\",OTHERS,False\nmp-1218633,\"{'Sr': 3.0, 'Nb': 2.0, 'Cu': 1.0, 'O': 9.0}\",\"('Cu', 'Nb', 'O', 'Sr')\",OTHERS,False\nmp-30737,\"{'Mg': 3.0, 'Y': 3.0, 'Ag': 3.0}\",\"('Ag', 'Mg', 'Y')\",OTHERS,False\nmp-1178817,\"{'V': 1.0, 'H': 6.0, 'O': 3.0, 'F': 3.0}\",\"('F', 'H', 'O', 'V')\",OTHERS,False\nmp-1111218,\"{'K': 2.0, 'Na': 1.0, 'Y': 1.0, 'Cl': 6.0}\",\"('Cl', 'K', 'Na', 'Y')\",OTHERS,False\nmp-1186111,\"{'Na': 1.0, 'Ac': 1.0, 'In': 2.0}\",\"('Ac', 'In', 'Na')\",OTHERS,False\nmp-753262,\"{'Li': 4.0, 'Co': 2.0, 'Si': 6.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'Si')\",OTHERS,False\nmp-555419,\"{'Te': 12.0, 'As': 8.0, 'C': 6.0, 'N': 6.0, 'F': 48.0}\",\"('As', 'C', 'F', 'N', 'Te')\",OTHERS,False\nmp-23416,\"{'Li': 8.0, 'Cl': 16.0, 'Zn': 4.0}\",\"('Cl', 'Li', 'Zn')\",OTHERS,False\nmp-1212666,\"{'Ga': 5.0, 'Cu': 1.0, 'Se': 8.0}\",\"('Cu', 'Ga', 'Se')\",OTHERS,False\nmp-1246876,\"{'Mg': 2.0, 'Cr': 2.0, 'Ga': 2.0, 'S': 8.0}\",\"('Cr', 'Ga', 'Mg', 'S')\",OTHERS,False\nmp-754558,\"{'Fe': 2.0, 'Ni': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Fe', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1192810,\"{'Mo': 6.0, 'N': 4.0, 'O': 20.0}\",\"('Mo', 'N', 'O')\",OTHERS,False\nmp-1215551,\"{'Yb': 2.0, 'Zn': 2.0, 'Ga': 2.0}\",\"('Ga', 'Yb', 'Zn')\",OTHERS,False\nmp-867186,\"{'Ce': 1.0, 'Zn': 2.0, 'Ag': 1.0}\",\"('Ag', 'Ce', 'Zn')\",OTHERS,False\nmp-1222821,\"{'Li': 1.0, 'Ni': 3.0, 'O': 6.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmp-867688,\"{'Li': 10.0, 'Fe': 2.0, 'P': 8.0, 'O': 28.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1097084,\"{'Fe': 2.0, 'Ir': 1.0, 'Rh': 1.0}\",\"('Fe', 'Ir', 'Rh')\",OTHERS,False\nmp-1112975,\"{'Cs': 3.0, 'Er': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Er')\",OTHERS,False\nmp-754764,\"{'Fe': 4.0, 'O': 4.0, 'F': 4.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-555580,\"{'Sr': 1.0, 'Zr': 4.0, 'P': 6.0, 'O': 24.0}\",\"('O', 'P', 'Sr', 'Zr')\",OTHERS,False\nmp-757526,\"{'Li': 4.0, 'V': 3.0, 'Co': 3.0, 'W': 2.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'V', 'W')\",OTHERS,False\nmp-1220034,\"{'P': 2.0, 'H': 2.0, 'Pb': 2.0, 'O': 8.0}\",\"('H', 'O', 'P', 'Pb')\",OTHERS,False\nmp-29514,\"{'H': 4.0, 'F': 16.0, 'P': 4.0}\",\"('F', 'H', 'P')\",OTHERS,False\nmp-1187049,\"{'Th': 3.0, 'Pb': 1.0}\",\"('Pb', 'Th')\",OTHERS,False\nmp-676121,\"{'Ag': 6.0, 'S': 2.0, 'I': 2.0}\",\"('Ag', 'I', 'S')\",OTHERS,False\nmvc-2200,\"{'Ca': 2.0, 'Mn': 2.0, 'P': 8.0, 'O': 24.0}\",\"('Ca', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1213873,\"{'Ce': 10.0, 'Sn': 6.0, 'Au': 2.0}\",\"('Au', 'Ce', 'Sn')\",OTHERS,False\nmp-1076602,\"{'Sr': 3.0, 'Ca': 5.0, 'Fe': 4.0, 'Co': 4.0, 'O': 24.0}\",\"('Ca', 'Co', 'Fe', 'O', 'Sr')\",OTHERS,False\nmp-764645,\"{'Li': 6.0, 'Mn': 2.0, 'F': 14.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-1193618,\"{'Rb': 8.0, 'Sn': 2.0, 'S': 8.0, 'O': 8.0}\",\"('O', 'Rb', 'S', 'Sn')\",OTHERS,False\nmp-1203867,\"{'Ce': 4.0, 'Co': 20.0, 'P': 12.0}\",\"('Ce', 'Co', 'P')\",OTHERS,False\nmp-1213449,\"{'K': 8.0, 'Te': 4.0, 'Mo': 12.0, 'O': 60.0}\",\"('K', 'Mo', 'O', 'Te')\",OTHERS,False\nmp-17954,\"{'S': 12.0, 'Cu': 6.0, 'Sn': 3.0, 'Ba': 3.0}\",\"('Ba', 'Cu', 'S', 'Sn')\",OTHERS,False\nmp-1211351,\"{'La': 6.0, 'Be': 2.0, 'Al': 2.0, 'S': 14.0}\",\"('Al', 'Be', 'La', 'S')\",OTHERS,False\nmp-1181590,\"{'Mg': 2.0, 'I': 4.0, 'O': 32.0}\",\"('I', 'Mg', 'O')\",OTHERS,False\nmp-1101836,\"{'Gd': 2.0, 'H': 4.0, 'Cl': 2.0, 'O': 4.0}\",\"('Cl', 'Gd', 'H', 'O')\",OTHERS,False\nmp-778822,\"{'Mn': 4.0, 'S': 6.0, 'O': 24.0}\",\"('Mn', 'O', 'S')\",OTHERS,False\nmp-557311,\"{'Sr': 16.0, 'Ge': 8.0, 'O': 32.0}\",\"('Ge', 'O', 'Sr')\",OTHERS,False\nmp-851030,\"{'Li': 8.0, 'Fe': 4.0, 'P': 4.0, 'H': 4.0, 'O': 20.0}\",\"('Fe', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-18685,\"{'S': 12.0, 'Cu': 6.0, 'Ge': 3.0, 'Sr': 3.0}\",\"('Cu', 'Ge', 'S', 'Sr')\",OTHERS,False\nmvc-13442,\"{'Cu': 4.0, 'S': 2.0}\",\"('Cu', 'S')\",OTHERS,False\nmp-1196732,\"{'Rb': 12.0, 'H': 24.0, 'I': 36.0, 'O': 108.0}\",\"('H', 'I', 'O', 'Rb')\",OTHERS,False\nmp-776293,\"{'Na': 8.0, 'Sb': 4.0, 'C': 8.0, 'S': 2.0, 'O': 32.0}\",\"('C', 'Na', 'O', 'S', 'Sb')\",OTHERS,False\nmp-558546,\"{'K': 6.0, 'S': 6.0, 'O': 18.0}\",\"('K', 'O', 'S')\",OTHERS,False\nmp-1199891,\"{'K': 8.0, 'P': 4.0, 'H': 16.0, 'S': 12.0, 'O': 8.0}\",\"('H', 'K', 'O', 'P', 'S')\",OTHERS,False\nmp-556776,\"{'Sr': 4.0, 'P': 8.0, 'O': 24.0}\",\"('O', 'P', 'Sr')\",OTHERS,False\nmp-1114561,\"{'Rb': 2.0, 'Li': 1.0, 'Bi': 1.0, 'Br': 6.0}\",\"('Bi', 'Br', 'Li', 'Rb')\",OTHERS,False\nmp-1193946,\"{'Mn': 4.0, 'Nb': 8.0, 'S': 16.0}\",\"('Mn', 'Nb', 'S')\",OTHERS,False\nmp-1232043,\"{'La': 8.0, 'Mg': 4.0, 'Se': 16.0}\",\"('La', 'Mg', 'Se')\",OTHERS,False\nmp-1097457,\"{'Sr': 2.0, 'Li': 1.0, 'Al': 1.0}\",\"('Al', 'Li', 'Sr')\",OTHERS,False\nmp-570756,\"{'Cs': 3.0, 'Li': 2.0, 'Cl': 5.0}\",\"('Cl', 'Cs', 'Li')\",OTHERS,False\nmp-1080857,\"{'Ce': 16.0, 'Se': 32.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-707788,\"{'Na': 4.0, 'Ca': 4.0, 'B': 20.0, 'H': 40.0, 'O': 56.0}\",\"('B', 'Ca', 'H', 'Na', 'O')\",OTHERS,False\nmp-1215942,\"{'Y': 1.0, 'Sc': 1.0, 'Fe': 4.0}\",\"('Fe', 'Sc', 'Y')\",OTHERS,False\nmp-1225255,\"{'Gd': 2.0, 'Co': 1.0, 'Ni': 3.0}\",\"('Co', 'Gd', 'Ni')\",OTHERS,False\nmp-1192708,\"{'U': 8.0, 'Co': 1.0, 'S': 17.0}\",\"('Co', 'S', 'U')\",OTHERS,False\nmp-1186284,\"{'Nd': 3.0, 'Pa': 1.0}\",\"('Nd', 'Pa')\",OTHERS,False\nmp-1197420,\"{'Mg': 2.0, 'Cr': 2.0, 'H': 44.0, 'O': 30.0}\",\"('Cr', 'H', 'Mg', 'O')\",OTHERS,False\nmp-984806,\"{'Ba': 4.0, 'Pr': 2.0, 'Ru': 2.0, 'O': 12.0}\",\"('Ba', 'O', 'Pr', 'Ru')\",OTHERS,False\nmp-758226,\"{'Cr': 1.0, 'Fe': 3.0, 'Co': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Co', 'Cr', 'Fe', 'O', 'P')\",OTHERS,False\nmp-10577,\"{'N': 20.0, 'Sr': 20.0, 'Nb': 4.0}\",\"('N', 'Nb', 'Sr')\",OTHERS,False\nmp-1033692,\"{'Hf': 1.0, 'Mg': 14.0, 'Cd': 1.0, 'O': 16.0}\",\"('Cd', 'Hf', 'Mg', 'O')\",OTHERS,False\nmp-17756,\"{'S': 12.0, 'Rb': 3.0, 'Ag': 6.0, 'Sb': 3.0}\",\"('Ag', 'Rb', 'S', 'Sb')\",OTHERS,False\nmp-540635,\"{'Ba': 2.0, 'Sn': 2.0, 'Ge': 6.0, 'O': 18.0}\",\"('Ba', 'Ge', 'O', 'Sn')\",OTHERS,False\nmp-567768,\"{'Yb': 2.0, 'Cu': 2.0, 'Ge': 2.0}\",\"('Cu', 'Ge', 'Yb')\",OTHERS,False\nmp-1245612,\"{'Mn': 28.0, 'Si': 4.0, 'N': 24.0}\",\"('Mn', 'N', 'Si')\",OTHERS,False\nmvc-684,\"{'Al': 2.0, 'Cr': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Al', 'Cr', 'O', 'W')\",OTHERS,False\nmp-1211961,\"{'K': 2.0, 'Si': 4.0, 'O': 8.0}\",\"('K', 'O', 'Si')\",OTHERS,False\nmp-28691,\"{'Te': 8.0, 'I': 2.0, 'Ta': 2.0}\",\"('I', 'Ta', 'Te')\",OTHERS,False\nmp-3433,\"{'Mg': 1.0, 'Ni': 4.0, 'Y': 1.0}\",\"('Mg', 'Ni', 'Y')\",OTHERS,False\nmp-30223,\"{'Fe': 4.0, 'I': 2.0, 'La': 4.0}\",\"('Fe', 'I', 'La')\",OTHERS,False\nmp-1218090,\"{'Ta': 3.0, 'Al': 1.0, 'Fe': 8.0}\",\"('Al', 'Fe', 'Ta')\",OTHERS,False\nmp-766351,\"{'Ba': 8.0, 'Ca': 4.0, 'I': 24.0}\",\"('Ba', 'Ca', 'I')\",OTHERS,False\nmp-1246792,\"{'Mg': 4.0, 'Cu': 4.0, 'N': 4.0}\",\"('Cu', 'Mg', 'N')\",OTHERS,False\nmp-1223097,\"{'Li': 16.0, 'H': 8.0, 'N': 8.0}\",\"('H', 'Li', 'N')\",OTHERS,False\nmp-618964,\"{'Ba': 10.0, 'Fe': 8.0, 'S': 22.0}\",\"('Ba', 'Fe', 'S')\",OTHERS,False\nmp-861934,\"{'Ho': 1.0, 'Al': 1.0, 'Ag': 2.0}\",\"('Ag', 'Al', 'Ho')\",OTHERS,False\nmp-1195152,\"{'Ba': 12.0, 'V': 16.0, 'Zn': 4.0, 'O': 56.0}\",\"('Ba', 'O', 'V', 'Zn')\",OTHERS,False\nmvc-3104,\"{'Ba': 2.0, 'Ca': 2.0, 'Tl': 2.0, 'W': 3.0, 'O': 10.0}\",\"('Ba', 'Ca', 'O', 'Tl', 'W')\",OTHERS,False\nmp-31308,\"{'S': 40.0, 'K': 8.0, 'Ta': 8.0}\",\"('K', 'S', 'Ta')\",OTHERS,False\nmp-771914,\"{'Ba': 6.0, 'La': 4.0, 'Cl': 24.0}\",\"('Ba', 'Cl', 'La')\",OTHERS,False\nmp-1016155,\"{'Na': 1.0, 'Mn': 4.0, 'O': 8.0}\",\"('Mn', 'Na', 'O')\",OTHERS,False\nmp-1227871,\"{'Ca': 6.0, 'Cd': 4.0, 'Ga': 8.0}\",\"('Ca', 'Cd', 'Ga')\",OTHERS,False\nmp-675479,\"{'Pu': 2.0, 'Pa': 2.0, 'O': 8.0}\",\"('O', 'Pa', 'Pu')\",OTHERS,False\nmvc-5756,\"{'Ca': 1.0, 'W': 1.0, 'O': 3.0}\",\"('Ca', 'O', 'W')\",OTHERS,False\nmp-7917,\"{'Ge': 2.0, 'Se': 2.0, 'Hf': 2.0}\",\"('Ge', 'Hf', 'Se')\",OTHERS,False\nmvc-16087,\"{'Y': 4.0, 'Ti': 12.0, 'O': 24.0}\",\"('O', 'Ti', 'Y')\",OTHERS,False\nmp-1221205,\"{'Na': 3.0, 'P': 1.0, 'O': 4.0}\",\"('Na', 'O', 'P')\",OTHERS,False\nmp-1212260,\"{'Ho': 6.0, 'Al': 24.0, 'Ru': 8.0}\",\"('Al', 'Ho', 'Ru')\",OTHERS,False\nmp-1181699,\"{'Cl': 2.0, 'O': 6.0}\",\"('Cl', 'O')\",OTHERS,False\nmp-980060,\"{'Tb': 1.0, 'Ag': 3.0}\",\"('Ag', 'Tb')\",OTHERS,False\nmp-1215532,\"{'Zn': 4.0, 'Fe': 1.0, 'Se': 5.0}\",\"('Fe', 'Se', 'Zn')\",OTHERS,False\nmp-1213005,\"{'Er': 4.0, 'Si': 4.0, 'Ni': 4.0}\",\"('Er', 'Ni', 'Si')\",OTHERS,False\nmp-23059,\"{'Cl': 6.0, 'Rb': 2.0, 'Sn': 1.0}\",\"('Cl', 'Rb', 'Sn')\",OTHERS,False\nmp-754334,\"{'Na': 2.0, 'Tm': 2.0, 'O': 4.0}\",\"('Na', 'O', 'Tm')\",OTHERS,False\nmp-1181627,\"{'Cu': 2.0, 'H': 28.0, 'C': 8.0, 'N': 8.0, 'O': 16.0}\",\"('C', 'Cu', 'H', 'N', 'O')\",OTHERS,False\nmp-757010,\"{'Li': 3.0, 'Fe': 1.0, 'Ni': 4.0, 'O': 8.0}\",\"('Fe', 'Li', 'Ni', 'O')\",OTHERS,False\nmvc-6842,\"{'Zn': 4.0, 'Ag': 8.0, 'O': 16.0}\",\"('Ag', 'O', 'Zn')\",OTHERS,False\nmp-1203168,\"{'Sn': 8.0, 'H': 48.0, 'C': 16.0, 'Cl': 8.0, 'O': 4.0}\",\"('C', 'Cl', 'H', 'O', 'Sn')\",OTHERS,False\nmp-1036763,\"{'Mg': 30.0, 'V': 1.0, 'Sn': 1.0, 'O': 32.0}\",\"('Mg', 'O', 'Sn', 'V')\",OTHERS,False\nmp-5622,\"{'P': 2.0, 'Co': 2.0, 'Nd': 1.0}\",\"('Co', 'Nd', 'P')\",OTHERS,False\nmp-568758,\"{'Bi': 8.0, 'Br': 8.0}\",\"('Bi', 'Br')\",OTHERS,False\nmp-1206153,\"{'Eu': 2.0, 'Zr': 1.0, 'O': 4.0}\",\"('Eu', 'O', 'Zr')\",OTHERS,False\nmp-753293,\"{'Li': 4.0, 'Ni': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1006112,\"{'Na': 3.0, 'Co': 1.0}\",\"('Co', 'Na')\",OTHERS,False\nmp-753722,\"{'Li': 1.0, 'Cu': 1.0, 'S': 2.0}\",\"('Cu', 'Li', 'S')\",OTHERS,False\nmp-758573,\"{'H': 16.0, 'Ru': 3.0, 'C': 6.0, 'Cl': 6.0, 'O': 14.0}\",\"('C', 'Cl', 'H', 'O', 'Ru')\",OTHERS,False\nmp-1087537,\"{'Cr': 3.0, 'P': 3.0, 'Pd': 3.0}\",\"('Cr', 'P', 'Pd')\",OTHERS,False\nmp-755178,\"{'Mn': 6.0, 'O': 4.0, 'F': 8.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1094248,\"{'Y': 2.0, 'Sn': 6.0}\",\"('Sn', 'Y')\",OTHERS,False\nmp-675744,\"{'Yb': 8.0, 'Zr': 6.0, 'O': 24.0}\",\"('O', 'Yb', 'Zr')\",OTHERS,False\nmp-1173749,\"{'Na': 8.0, 'Al': 6.0, 'Si': 6.0, 'O': 25.0}\",\"('Al', 'Na', 'O', 'Si')\",OTHERS,False\nmp-568342,\"{'Tb': 2.0, 'Cl': 2.0}\",\"('Cl', 'Tb')\",OTHERS,False\nmp-696457,\"{'Sc': 2.0, 'P': 6.0, 'H': 12.0, 'O': 24.0}\",\"('H', 'O', 'P', 'Sc')\",OTHERS,False\nmp-1105105,\"{'I': 10.0, 'N': 4.0}\",\"('I', 'N')\",OTHERS,False\nmp-776954,\"{'Li': 4.0, 'Mn': 2.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('H', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1208318,\"{'Tb': 4.0, 'Si': 4.0, 'Pt': 8.0}\",\"('Pt', 'Si', 'Tb')\",OTHERS,False\nmp-1094231,\"{'Mg': 2.0, 'Sn': 10.0}\",\"('Mg', 'Sn')\",OTHERS,False\nmp-568031,\"{'Ga': 8.0, 'Hg': 16.0, 'Sb': 8.0, 'Cl': 32.0}\",\"('Cl', 'Ga', 'Hg', 'Sb')\",OTHERS,False\nmp-758669,\"{'Li': 2.0, 'V': 4.0, 'C': 8.0, 'O': 24.0}\",\"('C', 'Li', 'O', 'V')\",OTHERS,False\nmp-554955,\"{'Mg': 1.0, 'Cr': 1.0, 'F': 6.0}\",\"('Cr', 'F', 'Mg')\",OTHERS,False\nmp-772496,\"{'Mn': 3.0, 'Cu': 1.0, 'Ni': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Cu', 'Mn', 'Ni', 'O', 'P')\",OTHERS,False\nmp-676110,\"{'Tb': 14.0, 'Pb': 3.0, 'Se': 24.0}\",\"('Pb', 'Se', 'Tb')\",OTHERS,False\nmp-1247846,\"{'Al': 16.0, 'O': 24.0}\",\"('Al', 'O')\",OTHERS,False\nmp-754649,\"{'Mn': 2.0, 'C': 2.0, 'S': 2.0, 'O': 14.0}\",\"('C', 'Mn', 'O', 'S')\",OTHERS,False\nmp-1099669,\"{'K': 4.0, 'Na': 28.0, 'V': 28.0, 'Mo': 4.0, 'O': 80.0}\",\"('K', 'Mo', 'Na', 'O', 'V')\",OTHERS,False\nmp-1219595,\"{'Rb': 2.0, 'Hg': 2.0, 'Sb': 2.0, 'Te': 6.0}\",\"('Hg', 'Rb', 'Sb', 'Te')\",OTHERS,False\nmp-10179,\"{'Li': 1.0, 'Mg': 1.0, 'Pd': 1.0, 'Sb': 1.0}\",\"('Li', 'Mg', 'Pd', 'Sb')\",OTHERS,False\nmp-1247446,\"{'Sr': 6.0, 'Zr': 6.0, 'N': 10.0}\",\"('N', 'Sr', 'Zr')\",OTHERS,False\nmp-1196501,\"{'Al': 4.0, 'Si': 6.0, 'N': 4.0, 'O': 20.0}\",\"('Al', 'N', 'O', 'Si')\",OTHERS,False\nmp-1073302,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-21653,\"{'Ba': 12.0, 'Ni': 12.0, 'N': 12.0}\",\"('Ba', 'N', 'Ni')\",OTHERS,False\nmp-1218180,\"{'Sr': 1.0, 'Nd': 2.0, 'Fe': 2.0, 'O': 7.0}\",\"('Fe', 'Nd', 'O', 'Sr')\",OTHERS,False\nmp-5170,\"{'Si': 4.0, 'Co': 2.0, 'Nd': 2.0}\",\"('Co', 'Nd', 'Si')\",OTHERS,False\nmp-1025876,\"{'Te': 2.0, 'Mo': 3.0, 'Se': 4.0}\",\"('Mo', 'Se', 'Te')\",OTHERS,False\nmp-1246783,\"{'Hf': 2.0, 'Cr': 2.0, 'Ag': 2.0, 'S': 8.0}\",\"('Ag', 'Cr', 'Hf', 'S')\",OTHERS,False\nmp-767204,\"{'Li': 4.0, 'V': 2.0, 'Si': 12.0, 'O': 30.0}\",\"('Li', 'O', 'Si', 'V')\",OTHERS,False\nmp-1203166,\"{'Er': 4.0, 'Mo': 6.0, 'H': 4.0, 'Se': 4.0, 'O': 34.0}\",\"('Er', 'H', 'Mo', 'O', 'Se')\",OTHERS,False\nmp-669546,\"{'Al': 13.0, 'Pd': 13.0}\",\"('Al', 'Pd')\",OTHERS,False\nmp-554396,\"{'Mg': 4.0, 'Si': 2.0, 'O': 8.0}\",\"('Mg', 'O', 'Si')\",OTHERS,False\nmp-1246732,\"{'Mg': 2.0, 'Co': 2.0, 'W': 2.0, 'S': 8.0}\",\"('Co', 'Mg', 'S', 'W')\",OTHERS,False\nmp-1206309,\"{'Er': 1.0, 'Cr': 2.0, 'Si': 2.0, 'C': 1.0}\",\"('C', 'Cr', 'Er', 'Si')\",OTHERS,False\nmp-976264,\"{'Li': 3.0, 'Nd': 1.0}\",\"('Li', 'Nd')\",OTHERS,False\nmp-974325,\"{'Nd': 2.0, 'Dy': 6.0}\",\"('Dy', 'Nd')\",OTHERS,False\nmp-1022965,\"{'K': 6.0, 'V': 4.0, 'P': 6.0, 'O': 24.0}\",\"('K', 'O', 'P', 'V')\",OTHERS,False\nmp-1194676,\"{'Zn': 2.0, 'H': 48.0, 'Au': 4.0, 'C': 24.0, 'S': 16.0, 'N': 8.0, 'Cl': 8.0}\",\"('Au', 'C', 'Cl', 'H', 'N', 'S', 'Zn')\",OTHERS,False\nmp-20646,\"{'Mn': 2.0, 'Ge': 2.0, 'Sm': 1.0}\",\"('Ge', 'Mn', 'Sm')\",OTHERS,False\nmp-754682,\"{'Li': 2.0, 'Ti': 1.0, 'Co': 3.0, 'O': 8.0}\",\"('Co', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-21903,\"{'S': 8.0, 'K': 2.0, 'Ge': 2.0, 'Eu': 2.0}\",\"('Eu', 'Ge', 'K', 'S')\",OTHERS,False\nmp-756024,\"{'Cr': 2.0, 'Sb': 4.0, 'O': 12.0}\",\"('Cr', 'O', 'Sb')\",OTHERS,False\nmp-865513,\"{'Y': 1.0, 'Sb': 1.0, 'Pd': 2.0}\",\"('Pd', 'Sb', 'Y')\",OTHERS,False\nmp-863426,\"{'Li': 6.0, 'Mn': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1200045,\"{'Bi': 24.0, 'N': 20.0, 'O': 104.0}\",\"('Bi', 'N', 'O')\",OTHERS,False\nmp-29381,\"{'Na': 16.0, 'As': 8.0, 'Te': 16.0}\",\"('As', 'Na', 'Te')\",OTHERS,False\nmp-546152,\"{'O': 4.0, 'Bi': 2.0, 'Sm': 1.0, 'Cl': 1.0}\",\"('Bi', 'Cl', 'O', 'Sm')\",OTHERS,False\nmp-695154,\"{'Na': 7.0, 'Bi': 3.0, 'P': 12.0, 'Pb': 10.0, 'O': 48.0}\",\"('Bi', 'Na', 'O', 'P', 'Pb')\",OTHERS,False\nmp-3200,\"{'O': 14.0, 'Ti': 4.0, 'Lu': 4.0}\",\"('Lu', 'O', 'Ti')\",OTHERS,False\nmp-755104,\"{'Ba': 4.0, 'Y': 2.0, 'Cl': 14.0}\",\"('Ba', 'Cl', 'Y')\",OTHERS,False\nmp-1094629,\"{'Mg': 2.0, 'Ga': 4.0}\",\"('Ga', 'Mg')\",OTHERS,False\nmp-5169,\"{'Cu': 8.0, 'P': 4.0, 'O': 18.0}\",\"('Cu', 'O', 'P')\",OTHERS,False\nmp-40802,\"{'Ba': 1.0, 'Bi': 1.0, 'La': 1.0, 'O': 6.0, 'Sr': 1.0}\",\"('Ba', 'Bi', 'La', 'O', 'Sr')\",OTHERS,False\nmp-1175840,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-30859,\"{'Zr': 9.0, 'Pt': 11.0}\",\"('Pt', 'Zr')\",OTHERS,False\nmvc-8434,\"{'Cr': 4.0, 'Ge': 8.0, 'O': 24.0}\",\"('Cr', 'Ge', 'O')\",OTHERS,False\nmp-1183368,\"{'Ba': 6.0, 'Pr': 2.0}\",\"('Ba', 'Pr')\",OTHERS,False\nmp-1114554,\"{'Tb': 1.0, 'K': 1.0, 'Rb': 2.0, 'Cl': 6.0}\",\"('Cl', 'K', 'Rb', 'Tb')\",OTHERS,False\nmp-1217705,\"{'Tb': 2.0, 'Ge': 3.0}\",\"('Ge', 'Tb')\",OTHERS,False\nmp-1183070,\"{'Ac': 2.0, 'Tl': 1.0, 'Sn': 1.0}\",\"('Ac', 'Sn', 'Tl')\",OTHERS,False\nmp-1207257,\"{'K': 2.0, 'Cd': 1.0, 'Sb': 2.0}\",\"('Cd', 'K', 'Sb')\",OTHERS,False\nmp-1201169,\"{'P': 16.0, 'Se': 12.0, 'Br': 8.0}\",\"('Br', 'P', 'Se')\",OTHERS,False\nmp-777779,\"{'Li': 4.0, 'Mn': 1.0, 'Te': 3.0, 'O': 12.0}\",\"('Li', 'Mn', 'O', 'Te')\",OTHERS,False\nmp-1203277,\"{'K': 12.0, 'Ho': 4.0, 'Si': 12.0, 'O': 40.0}\",\"('Ho', 'K', 'O', 'Si')\",OTHERS,False\nmp-28760,\"{'S': 4.0, 'K': 4.0, 'Rb': 4.0}\",\"('K', 'Rb', 'S')\",OTHERS,False\nmp-1104486,\"{'Tm': 6.0, 'Ge': 8.0}\",\"('Ge', 'Tm')\",OTHERS,False\nmp-866804,\"{'Ti': 1.0, 'Mn': 1.0, 'H': 12.0, 'O': 6.0, 'F': 6.0}\",\"('F', 'H', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-1222497,\"{'Lu': 1.0, 'Al': 8.0, 'Ni': 3.0}\",\"('Al', 'Lu', 'Ni')\",OTHERS,False\nmp-556725,\"{'Cu': 2.0, 'H': 16.0, 'C': 4.0, 'Br': 6.0, 'N': 2.0, 'O': 2.0}\",\"('Br', 'C', 'Cu', 'H', 'N', 'O')\",OTHERS,False\nmp-755170,\"{'Fe': 8.0, 'O': 2.0, 'F': 14.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-510062,\"{'Sm': 2.0, 'Cs': 2.0, 'Cd': 2.0, 'Se': 6.0}\",\"('Cd', 'Cs', 'Se', 'Sm')\",OTHERS,False\nmp-571212,\"{'Yb': 10.0, 'Ag': 6.0}\",\"('Ag', 'Yb')\",OTHERS,False\nmvc-1887,\"{'Ba': 4.0, 'Mg': 2.0, 'Cu': 2.0, 'Sb': 4.0, 'F': 28.0}\",\"('Ba', 'Cu', 'F', 'Mg', 'Sb')\",OTHERS,False\nmp-1219789,\"{'Rb': 4.0, 'Ba': 2.0, 'Cl': 8.0}\",\"('Ba', 'Cl', 'Rb')\",OTHERS,False\nmp-1106192,\"{'Eu': 4.0, 'Zr': 4.0, 'Se': 12.0}\",\"('Eu', 'Se', 'Zr')\",OTHERS,False\nmp-1227727,\"{'Ba': 1.0, 'Sr': 4.0, 'Fe': 5.0, 'O': 15.0}\",\"('Ba', 'Fe', 'O', 'Sr')\",OTHERS,False\nmp-980066,\"{'Sm': 8.0, 'Cu': 12.0, 'As': 12.0}\",\"('As', 'Cu', 'Sm')\",OTHERS,False\nmp-1190681,\"{'Zr': 8.0, 'Fe': 16.0}\",\"('Fe', 'Zr')\",OTHERS,False\nmp-1215652,\"{'Zn': 4.0, 'Cd': 1.0, 'Se': 5.0}\",\"('Cd', 'Se', 'Zn')\",OTHERS,False\nmp-5351,\"{'Ge': 2.0, 'Pd': 2.0, 'Tb': 1.0}\",\"('Ge', 'Pd', 'Tb')\",OTHERS,False\nmp-971911,\"{'Zn': 2.0, 'N': 2.0}\",\"('N', 'Zn')\",OTHERS,False\nmp-1244700,\"{'Cr': 12.0, 'O': 28.0}\",\"('Cr', 'O')\",OTHERS,False\nmp-9194,\"{'O': 2.0, 'Cu': 2.0, 'Se': 2.0, 'Sm': 2.0}\",\"('Cu', 'O', 'Se', 'Sm')\",OTHERS,False\nmp-754161,\"{'Rb': 6.0, 'Ho': 2.0, 'O': 6.0}\",\"('Ho', 'O', 'Rb')\",OTHERS,False\nmp-754801,\"{'Li': 3.0, 'Ti': 6.0, 'O': 13.0}\",\"('Li', 'O', 'Ti')\",OTHERS,False\nmp-1199509,\"{'Mg': 8.0, 'As': 4.0, 'O': 20.0}\",\"('As', 'Mg', 'O')\",OTHERS,False\nmp-698941,\"{'Nd': 10.0, 'Fe': 10.0, 'As': 10.0, 'O': 8.0, 'F': 2.0}\",\"('As', 'F', 'Fe', 'Nd', 'O')\",OTHERS,False\nmp-13925,\"{'F': 6.0, 'Na': 1.0, 'Y': 1.0, 'Cs': 2.0}\",\"('Cs', 'F', 'Na', 'Y')\",OTHERS,False\nmp-1221346,\"{'Na': 4.0, 'Nd': 8.0, 'N': 2.0, 'Cl': 18.0, 'O': 2.0}\",\"('Cl', 'N', 'Na', 'Nd', 'O')\",OTHERS,False\nmp-13196,\"{'O': 16.0, 'Sb': 4.0, 'Sm': 4.0}\",\"('O', 'Sb', 'Sm')\",OTHERS,False\nmp-21170,\"{'K': 4.0, 'Pb': 8.0}\",\"('K', 'Pb')\",OTHERS,False\nmp-570981,\"{'Ce': 2.0, 'Al': 16.0, 'Pt': 9.0}\",\"('Al', 'Ce', 'Pt')\",OTHERS,False\nmp-1132757,\"{'Mg': 2.0, 'V': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Mg', 'O', 'Si', 'V')\",OTHERS,False\nmp-1177267,\"{'Li': 4.0, 'V': 3.0, 'Cu': 1.0, 'P': 4.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-867842,\"{'Sc': 1.0, 'In': 1.0, 'Rh': 2.0}\",\"('In', 'Rh', 'Sc')\",OTHERS,False\nmp-1076669,\"{'La': 7.0, 'Sm': 1.0, 'Mn': 6.0, 'Fe': 2.0, 'O': 24.0}\",\"('Fe', 'La', 'Mn', 'O', 'Sm')\",OTHERS,False\nmp-1174421,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-637194,\"{'Cs': 6.0, 'Sc': 4.0, 'Cl': 18.0}\",\"('Cl', 'Cs', 'Sc')\",OTHERS,False\nmp-31075,\"{'Se': 8.0, 'Br': 8.0, 'Hg': 12.0}\",\"('Br', 'Hg', 'Se')\",OTHERS,False\nmp-1194742,\"{'Ba': 6.0, 'B': 6.0, 'Pb': 4.0, 'Br': 2.0, 'O': 18.0}\",\"('B', 'Ba', 'Br', 'O', 'Pb')\",OTHERS,False\nmp-1097647,\"{'Y': 2.0, 'Pd': 1.0, 'Pt': 1.0}\",\"('Pd', 'Pt', 'Y')\",OTHERS,False\nmp-769605,\"{'Li': 8.0, 'V': 2.0, 'Cr': 6.0, 'O': 16.0}\",\"('Cr', 'Li', 'O', 'V')\",OTHERS,False\nmp-20773,\"{'As': 1.0, 'Pu': 1.0}\",\"('As', 'Pu')\",OTHERS,False\nmp-1225195,\"{'Fe': 2.0, 'C': 6.0, 'N': 6.0, 'O': 4.0}\",\"('C', 'Fe', 'N', 'O')\",OTHERS,False\nmp-30756,\"{'Ru': 8.0, 'Sn': 24.0, 'La': 8.0}\",\"('La', 'Ru', 'Sn')\",OTHERS,False\nmp-1191680,\"{'Ta': 6.0, 'Se': 18.0}\",\"('Se', 'Ta')\",OTHERS,False\nmp-1187021,\"{'Sm': 1.0, 'Mg': 5.0}\",\"('Mg', 'Sm')\",OTHERS,False\nmp-1212458,\"{'Ho': 12.0, 'Mn': 8.0, 'Al': 86.0}\",\"('Al', 'Ho', 'Mn')\",OTHERS,False\nmp-639876,\"{'U': 4.0, 'Sn': 2.0, 'Rh': 4.0}\",\"('Rh', 'Sn', 'U')\",OTHERS,False\nmp-1079393,\"{'Co': 6.0, 'Si': 2.0}\",\"('Co', 'Si')\",OTHERS,False\nmp-569505,\"{'Tb': 2.0, 'Re': 4.0, 'Si': 2.0, 'C': 2.0}\",\"('C', 'Re', 'Si', 'Tb')\",OTHERS,False\nmp-11621,\"{'Ni': 1.0, 'Zn': 1.0, 'Sb': 1.0}\",\"('Ni', 'Sb', 'Zn')\",OTHERS,False\nmp-1204729,\"{'Yb': 12.0, 'Al': 86.0, 'W': 8.0}\",\"('Al', 'W', 'Yb')\",OTHERS,False\nmp-18041,\"{'O': 16.0, 'Sm': 2.0, 'W': 4.0, 'Tl': 2.0}\",\"('O', 'Sm', 'Tl', 'W')\",OTHERS,False\nmp-1245963,\"{'Ba': 2.0, 'Fe': 4.0, 'N': 4.0}\",\"('Ba', 'Fe', 'N')\",OTHERS,False\nmp-1228860,\"{'Ba': 4.0, 'Cr': 13.0, 'O': 28.0}\",\"('Ba', 'Cr', 'O')\",OTHERS,False\nmp-758664,\"{'Fe': 18.0, 'O': 18.0, 'F': 18.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-555837,\"{'Rb': 6.0, 'Si': 10.0, 'O': 23.0}\",\"('O', 'Rb', 'Si')\",OTHERS,False\nmp-1104225,\"{'Lu': 3.0, 'Ga': 9.0, 'Pd': 2.0}\",\"('Ga', 'Lu', 'Pd')\",OTHERS,False\nmp-1203797,\"{'Nd': 26.0, 'B': 8.0, 'O': 52.0}\",\"('B', 'Nd', 'O')\",OTHERS,False\nmp-866873,\"{'Ca': 6.0, 'Sn': 4.0, 'S': 14.0}\",\"('Ca', 'S', 'Sn')\",OTHERS,False\nmp-1018136,\"{'La': 1.0, 'Bi': 1.0, 'Pt': 1.0}\",\"('Bi', 'La', 'Pt')\",OTHERS,False\nmp-1224692,\"{'Fe': 2.0, 'Pt': 1.0}\",\"('Fe', 'Pt')\",OTHERS,False\nmp-20509,\"{'Ba': 2.0, 'Y': 1.0, 'Cu': 4.0, 'O': 8.0}\",\"('Ba', 'Cu', 'O', 'Y')\",OTHERS,False\nmvc-13704,\"{'Zn': 4.0, 'Sb': 2.0, 'Mo': 2.0, 'O': 12.0}\",\"('Mo', 'O', 'Sb', 'Zn')\",OTHERS,False\nmp-778408,\"{'Hg': 2.0, 'Bi': 2.0, 'O': 6.0}\",\"('Bi', 'Hg', 'O')\",OTHERS,False\nmp-771151,\"{'Li': 4.0, 'Mn': 2.0, 'As': 2.0, 'C': 2.0, 'O': 14.0}\",\"('As', 'C', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-973451,\"{'Nd': 2.0, 'Bi': 1.0, 'O': 2.0}\",\"('Bi', 'Nd', 'O')\",OTHERS,False\nmp-768200,\"{'Li': 4.0, 'Ho': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Ho', 'Li', 'O', 'P')\",OTHERS,False\nmp-753777,\"{'Li': 6.0, 'Fe': 1.0, 'Co': 1.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Co', 'Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-3411,\"{'Se': 6.0, 'Mo': 6.0, 'Tl': 2.0}\",\"('Mo', 'Se', 'Tl')\",OTHERS,False\nmp-12174,\"{'Ni': 30.0, 'Hf': 10.0}\",\"('Hf', 'Ni')\",OTHERS,False\nmp-977455,\"{'Pa': 1.0, 'Ag': 1.0, 'O': 3.0}\",\"('Ag', 'O', 'Pa')\",OTHERS,False\nmp-1181167,\"{'Na': 8.0, 'B': 16.0, 'O': 44.0}\",\"('B', 'Na', 'O')\",OTHERS,False\nmp-10872,\"{'Al': 1.0, 'Hf': 1.0, 'Au': 2.0}\",\"('Al', 'Au', 'Hf')\",OTHERS,False\nmp-755125,\"{'Li': 2.0, 'Mn': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1099332,\"{'Sr': 1.0, 'Ce': 1.0, 'Mg': 6.0}\",\"('Ce', 'Mg', 'Sr')\",OTHERS,False\nmp-1103088,\"{'Dy': 3.0, 'Al': 9.0}\",\"('Al', 'Dy')\",OTHERS,False\nmp-760954,\"{'Li': 5.0, 'Ti': 2.0, 'V': 3.0, 'O': 10.0}\",\"('Li', 'O', 'Ti', 'V')\",OTHERS,False\nmp-1180456,\"{'Li': 3.0, 'V': 3.0, 'O': 6.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1094709,\"{'Mg': 3.0, 'Sb': 1.0}\",\"('Mg', 'Sb')\",OTHERS,False\nmp-22461,\"{'Fe': 3.0, 'Sn': 1.0}\",\"('Fe', 'Sn')\",OTHERS,False\nmp-1095709,\"{'Tc': 2.0, 'Ge': 1.0, 'W': 1.0}\",\"('Ge', 'Tc', 'W')\",OTHERS,False\nmp-773100,\"{'La': 4.0, 'Bi': 2.0, 'O': 10.0}\",\"('Bi', 'La', 'O')\",OTHERS,False\nmp-1214654,\"{'Ba': 4.0, 'La': 2.0, 'Nb': 2.0, 'Cu': 4.0, 'O': 16.0}\",\"('Ba', 'Cu', 'La', 'Nb', 'O')\",OTHERS,False\nmp-1184074,\"{'Dy': 1.0, 'Tm': 1.0, 'Ru': 2.0}\",\"('Dy', 'Ru', 'Tm')\",OTHERS,False\nmp-1221048,\"{'Na': 2.0, 'Li': 2.0, 'V': 4.0, 'O': 12.0}\",\"('Li', 'Na', 'O', 'V')\",OTHERS,False\nmp-1215695,\"{'Zn': 6.0, 'Ga': 2.0, 'Ag': 2.0, 'S': 10.0}\",\"('Ag', 'Ga', 'S', 'Zn')\",OTHERS,False\nmp-1207493,\"{'Yb': 4.0, 'Si': 4.0, 'Pd': 4.0}\",\"('Pd', 'Si', 'Yb')\",OTHERS,False\nmp-1210775,\"{'Lu': 4.0, 'O': 4.0, 'F': 4.0}\",\"('F', 'Lu', 'O')\",OTHERS,False\nmp-23626,\"{'Rb': 4.0, 'Li': 8.0, 'I': 12.0, 'O': 36.0}\",\"('I', 'Li', 'O', 'Rb')\",OTHERS,False\nmp-722891,\"{'Na': 4.0, 'Ni': 2.0, 'H': 28.0, 'N': 12.0}\",\"('H', 'N', 'Na', 'Ni')\",OTHERS,False\nmp-1226724,\"{'Cd': 1.0, 'Sb': 1.0}\",\"('Cd', 'Sb')\",OTHERS,False\nmp-1245570,\"{'Mn': 16.0, 'Se': 12.0, 'N': 8.0}\",\"('Mn', 'N', 'Se')\",OTHERS,False\nmp-25827,\"{'Li': 2.0, 'O': 22.0, 'P': 6.0, 'Mo': 4.0}\",\"('Li', 'Mo', 'O', 'P')\",OTHERS,False\nmp-1184919,\"{'K': 6.0, 'Na': 2.0}\",\"('K', 'Na')\",OTHERS,False\nmp-540619,\"{'K': 12.0, 'Sn': 4.0, 'Te': 12.0}\",\"('K', 'Sn', 'Te')\",OTHERS,False\nmp-768960,\"{'Li': 40.0, 'B': 8.0, 'O': 32.0}\",\"('B', 'Li', 'O')\",OTHERS,False\nmp-1221608,\"{'Mo': 6.0, 'Pb': 1.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'Pb', 'S', 'Se')\",OTHERS,False\nmp-1173753,\"{'Na': 4.0, 'Ga': 4.0, 'Se': 6.0}\",\"('Ga', 'Na', 'Se')\",OTHERS,False\nmp-1186717,\"{'Pr': 3.0, 'Hf': 1.0}\",\"('Hf', 'Pr')\",OTHERS,False\nmp-1120736,\"{'Na': 10.0, 'Ti': 6.0, 'F': 28.0}\",\"('F', 'Na', 'Ti')\",OTHERS,False\nmp-1217173,\"{'Ti': 16.0, 'Mn': 8.0, 'O': 4.0}\",\"('Mn', 'O', 'Ti')\",OTHERS,False\nmp-28513,\"{'O': 12.0, 'Cl': 4.0, 'Pb': 2.0}\",\"('Cl', 'O', 'Pb')\",OTHERS,False\nmp-1179787,\"{'Rb': 1.0, 'Cd': 6.0, 'C': 12.0, 'Br': 1.0, 'O': 26.0}\",\"('Br', 'C', 'Cd', 'O', 'Rb')\",OTHERS,False\nmp-1206284,\"{'La': 2.0, 'C': 2.0, 'Br': 2.0}\",\"('Br', 'C', 'La')\",OTHERS,False\nmvc-13426,\"{'Ca': 1.0, 'Cu': 2.0, 'N': 2.0}\",\"('Ca', 'Cu', 'N')\",OTHERS,False\nmp-1095427,\"{'Hf': 4.0, 'Co': 4.0, 'P': 4.0}\",\"('Co', 'Hf', 'P')\",OTHERS,False\nmp-556346,\"{'Pr': 4.0, 'I': 12.0, 'O': 36.0}\",\"('I', 'O', 'Pr')\",OTHERS,False\nmp-1225036,\"{'Gd': 1.0, 'Al': 6.0, 'Cu': 6.0}\",\"('Al', 'Cu', 'Gd')\",OTHERS,False\nmp-15796,\"{'Li': 1.0, 'Se': 2.0, 'Ho': 1.0}\",\"('Ho', 'Li', 'Se')\",OTHERS,False\nmp-1105352,\"{'Ce': 1.0, 'Fe': 4.0, 'Cu': 3.0, 'O': 12.0}\",\"('Ce', 'Cu', 'Fe', 'O')\",OTHERS,False\nmp-1247144,\"{'La': 2.0, 'Mg': 2.0, 'Mo': 2.0, 'S': 8.0}\",\"('La', 'Mg', 'Mo', 'S')\",OTHERS,False\nmp-762249,\"{'V': 2.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'O', 'V')\",OTHERS,False\nmp-775938,\"{'Ti': 12.0, 'O': 24.0}\",\"('O', 'Ti')\",OTHERS,False\nmp-765521,\"{'Li': 4.0, 'V': 4.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-1232150,\"{'Mg': 4.0, 'Sc': 4.0, 'Se': 12.0}\",\"('Mg', 'Sc', 'Se')\",OTHERS,False\nmp-560262,\"{'Zn': 2.0, 'In': 4.0, 'S': 8.0}\",\"('In', 'S', 'Zn')\",OTHERS,False\nmp-867247,\"{'Tb': 2.0, 'Br': 6.0}\",\"('Br', 'Tb')\",OTHERS,False\nmp-765086,\"{'Li': 10.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1186042,\"{'Na': 6.0, 'Ca': 2.0}\",\"('Ca', 'Na')\",OTHERS,False\nmp-1217247,\"{'Ti': 16.0, 'Co': 4.0, 'Ni': 4.0}\",\"('Co', 'Ni', 'Ti')\",OTHERS,False\nmp-1017629,\"{'Mg': 1.0, 'Ni': 1.0, 'H': 3.0}\",\"('H', 'Mg', 'Ni')\",OTHERS,False\nmp-1190932,\"{'Co': 3.0, 'Te': 2.0, 'P': 2.0, 'O': 14.0}\",\"('Co', 'O', 'P', 'Te')\",OTHERS,False\nmp-1239190,\"{'Ta': 2.0, 'Cr': 6.0, 'Ag': 4.0, 'S': 16.0}\",\"('Ag', 'Cr', 'S', 'Ta')\",OTHERS,False\nmp-1205523,\"{'Sc': 4.0, 'Co': 2.0, 'Ge': 4.0}\",\"('Co', 'Ge', 'Sc')\",OTHERS,False\nmp-1206590,\"{'Co': 1.0, 'Au': 3.0}\",\"('Au', 'Co')\",OTHERS,False\nmp-36577,\"{'As': 2.0, 'S': 4.0, 'Sr': 1.0}\",\"('As', 'S', 'Sr')\",OTHERS,False\nmp-1037480,\"{'Y': 1.0, 'Mg': 30.0, 'Cr': 1.0, 'O': 32.0}\",\"('Cr', 'Mg', 'O', 'Y')\",OTHERS,False\nmp-1100897,\"{'Y': 2.0, 'Zr': 8.0, 'O': 19.0}\",\"('O', 'Y', 'Zr')\",OTHERS,False\nmp-8885,\"{'S': 8.0, 'Cd': 4.0, 'Ba': 4.0}\",\"('Ba', 'Cd', 'S')\",OTHERS,False\nmp-1097227,\"{'Sr': 2.0, 'Hg': 1.0, 'Sb': 1.0}\",\"('Hg', 'Sb', 'Sr')\",OTHERS,False\nmp-1220301,\"{'Nb': 2.0, 'Tl': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Nb', 'O', 'Tl', 'W')\",OTHERS,False\nmp-757780,\"{'Li': 24.0, 'Co': 24.0, 'P': 24.0, 'O': 96.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,False\nmp-1188749,\"{'Tb': 4.0, 'Ga': 4.0, 'Pd': 8.0}\",\"('Ga', 'Pd', 'Tb')\",OTHERS,False\nmp-1218281,\"{'Sr': 1.0, 'Eu': 1.0, 'Ni': 1.0, 'O': 4.0}\",\"('Eu', 'Ni', 'O', 'Sr')\",OTHERS,False\nmp-1076317,\"{'Mg': 1.0, 'Cu': 1.0, 'O': 3.0}\",\"('Cu', 'Mg', 'O')\",OTHERS,False\nmp-1214856,\"{'Al': 4.0, 'S': 4.0, 'N': 4.0, 'Cl': 12.0}\",\"('Al', 'Cl', 'N', 'S')\",OTHERS,False\nmp-722280,\"{'Li': 4.0, 'Cu': 4.0, 'H': 16.0, 'Cl': 12.0, 'O': 8.0}\",\"('Cl', 'Cu', 'H', 'Li', 'O')\",OTHERS,False\nmp-1176501,\"{'Lu': 2.0, 'Bi': 2.0, 'O': 6.0}\",\"('Bi', 'Lu', 'O')\",OTHERS,False\nmp-1181934,\"{'Mg': 2.0, 'H': 32.0, 'C': 8.0, 'S': 8.0, 'N': 4.0, 'O': 32.0, 'F': 24.0}\",\"('C', 'F', 'H', 'Mg', 'N', 'O', 'S')\",OTHERS,False\nmp-1018064,\"{'Er': 1.0, 'Fe': 1.0, 'C': 2.0}\",\"('C', 'Er', 'Fe')\",OTHERS,False\nmp-1245216,\"{'Zn': 50.0, 'S': 50.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-1202863,\"{'Na': 8.0, 'Mg': 8.0, 'P': 8.0, 'C': 16.0, 'O': 48.0}\",\"('C', 'Mg', 'Na', 'O', 'P')\",OTHERS,False\nmp-767927,\"{'Li': 8.0, 'Ti': 2.0, 'V': 8.0, 'Cr': 8.0, 'O': 36.0}\",\"('Cr', 'Li', 'O', 'Ti', 'V')\",OTHERS,False\nmp-18825,\"{'Y': 2.0, 'Cr': 2.0, 'O': 8.0}\",\"('Cr', 'O', 'Y')\",OTHERS,False\nmp-8073,\"{'As': 4.0, 'Pd': 8.0}\",\"('As', 'Pd')\",OTHERS,False\nmp-27568,\"{'Al': 6.0, 'Ge': 14.0, 'Ba': 20.0}\",\"('Al', 'Ba', 'Ge')\",OTHERS,False\nmp-1201050,\"{'Sm': 4.0, 'Nb': 4.0, 'S': 14.0, 'O': 60.0}\",\"('Nb', 'O', 'S', 'Sm')\",OTHERS,False\nmp-1219618,\"{'Rb': 4.0, 'H': 16.0, 'O': 12.0}\",\"('H', 'O', 'Rb')\",OTHERS,False\nmp-1181620,\"{'Co': 1.0, 'I': 2.0, 'O': 6.0}\",\"('Co', 'I', 'O')\",OTHERS,False\nmp-1190024,\"{'Ba': 6.0, 'Na': 2.0, 'Sb': 2.0, 'O': 12.0}\",\"('Ba', 'Na', 'O', 'Sb')\",OTHERS,False\nmp-1102309,\"{'Yb': 8.0, 'Ga': 4.0}\",\"('Ga', 'Yb')\",OTHERS,False\nmp-780850,\"{'Li': 6.0, 'Mn': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1174348,\"{'Li': 8.0, 'Mn': 6.0, 'O': 14.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-755848,\"{'Li': 6.0, 'Cr': 3.0, 'Fe': 3.0, 'O': 12.0}\",\"('Cr', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1246916,\"{'Mg': 2.0, 'Ni': 10.0, 'N': 8.0}\",\"('Mg', 'N', 'Ni')\",OTHERS,False\nmp-1246348,\"{'Fe': 3.0, 'Co': 8.0, 'N': 8.0}\",\"('Co', 'Fe', 'N')\",OTHERS,False\nmp-1227523,\"{'Ce': 4.0, 'U': 8.0, 'S': 20.0}\",\"('Ce', 'S', 'U')\",OTHERS,False\nmp-1221600,\"{'Mn': 2.0, 'Re': 2.0, 'B': 4.0}\",\"('B', 'Mn', 'Re')\",OTHERS,False\nmp-1206101,\"{'Ag': 1.0, 'Pb': 1.0, 'F': 6.0}\",\"('Ag', 'F', 'Pb')\",OTHERS,False\nmp-3627,\"{'S': 8.0, 'Mo': 6.0, 'Eu': 1.0}\",\"('Eu', 'Mo', 'S')\",OTHERS,False\nmp-1101817,\"{'Sm': 4.0, 'Ni': 4.0, 'Ge': 4.0}\",\"('Ge', 'Ni', 'Sm')\",OTHERS,False\nmp-757453,\"{'Fe': 6.0, 'O': 6.0, 'F': 6.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1009494,\"{'Np': 1.0, 'N': 1.0}\",\"('N', 'Np')\",OTHERS,False\nmp-1208255,\"{'Th': 2.0, 'N': 8.0, 'O': 34.0}\",\"('N', 'O', 'Th')\",OTHERS,False\nmp-1246406,\"{'Mg': 2.0, 'V': 1.0, 'Mo': 3.0, 'S': 8.0}\",\"('Mg', 'Mo', 'S', 'V')\",OTHERS,False\nmp-1187388,\"{'Tb': 1.0, 'Tm': 1.0, 'Ir': 2.0}\",\"('Ir', 'Tb', 'Tm')\",OTHERS,False\nmp-1080058,\"{'K': 2.0, 'I': 2.0, 'O': 6.0}\",\"('I', 'K', 'O')\",OTHERS,False\nmp-756968,\"{'K': 6.0, 'Ca': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Ca', 'K', 'O', 'P')\",OTHERS,False\nmp-864661,\"{'Zn': 1.0, 'Cu': 1.0, 'Pd': 2.0}\",\"('Cu', 'Pd', 'Zn')\",OTHERS,False\nmp-761143,\"{'K': 3.0, 'Li': 3.0, 'Sb': 3.0, 'P': 6.0, 'O': 24.0}\",\"('K', 'Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1225300,\"{'Dy': 2.0, 'Al': 3.0, 'Co': 1.0}\",\"('Al', 'Co', 'Dy')\",OTHERS,False\nmp-1213415,\"{'Cu': 6.0, 'Hg': 18.0, 'As': 12.0, 'Cl': 18.0}\",\"('As', 'Cl', 'Cu', 'Hg')\",OTHERS,False\nmp-1187213,\"{'Ta': 2.0, 'Re': 1.0, 'Os': 1.0}\",\"('Os', 'Re', 'Ta')\",OTHERS,False\nmp-6407,\"{'F': 160.0, 'Se': 32.0, 'Sb': 32.0, 'Te': 16.0}\",\"('F', 'Sb', 'Se', 'Te')\",OTHERS,False\nmp-29419,\"{'Cl': 6.0, 'Te': 4.0, 'Hf': 1.0}\",\"('Cl', 'Hf', 'Te')\",OTHERS,False\nmp-1198750,\"{'Mg': 2.0, 'H': 44.0, 'S': 2.0, 'O': 30.0}\",\"('H', 'Mg', 'O', 'S')\",OTHERS,False\nmp-555732,\"{'Yb': 8.0, 'P': 8.0, 'S': 32.0}\",\"('P', 'S', 'Yb')\",OTHERS,False\nmp-505647,\"{'Gd': 2.0, 'W': 4.0, 'K': 2.0, 'O': 16.0}\",\"('Gd', 'K', 'O', 'W')\",OTHERS,False\nmp-1208134,\"{'Tl': 1.0, 'Cu': 2.0, 'H': 1.0, 'Se': 2.0, 'O': 10.0}\",\"('Cu', 'H', 'O', 'Se', 'Tl')\",OTHERS,False\nmp-581156,\"{'Cs': 14.0, 'U': 16.0, 'V': 4.0, 'Cl': 2.0, 'O': 64.0}\",\"('Cl', 'Cs', 'O', 'U', 'V')\",OTHERS,False\nmp-1096373,\"{'Mg': 1.0, 'Sc': 1.0, 'Tl': 2.0}\",\"('Mg', 'Sc', 'Tl')\",OTHERS,False\nmp-1245419,\"{'Li': 12.0, 'Mn': 4.0, 'N': 8.0}\",\"('Li', 'Mn', 'N')\",OTHERS,False\nmp-758457,\"{'Li': 4.0, 'Ti': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Li', 'O', 'P', 'Ti')\",OTHERS,False\nmp-505186,\"{'Cs': 8.0, 'Pr': 12.0, 'I': 26.0, 'C': 4.0}\",\"('C', 'Cs', 'I', 'Pr')\",OTHERS,False\nmp-1119132,\"{'Cs': 20.0, 'Os': 20.0, 'N': 40.0}\",\"('Cs', 'N', 'Os')\",OTHERS,False\nmp-567076,\"{'Li': 2.0, 'Bi': 1.0, 'Au': 1.0}\",\"('Au', 'Bi', 'Li')\",OTHERS,False\nmp-983229,\"{'Pm': 2.0, 'Zn': 1.0, 'Rh': 1.0}\",\"('Pm', 'Rh', 'Zn')\",OTHERS,False\nmp-604910,\"{'Mn': 2.0, 'Se': 2.0}\",\"('Mn', 'Se')\",OTHERS,False\nmp-766086,\"{'Li': 4.0, 'La': 8.0, 'Ti': 8.0, 'Cr': 4.0, 'O': 36.0}\",\"('Cr', 'La', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-1192303,\"{'Pr': 2.0, 'Mn': 3.0, 'Sb': 4.0, 'S': 12.0}\",\"('Mn', 'Pr', 'S', 'Sb')\",OTHERS,False\nmp-561125,\"{'Ba': 10.0, 'P': 6.0, 'Br': 2.0, 'O': 24.0}\",\"('Ba', 'Br', 'O', 'P')\",OTHERS,False\nmp-1114171,\"{'K': 2.0, 'Na': 1.0, 'Ru': 1.0, 'F': 6.0}\",\"('F', 'K', 'Na', 'Ru')\",OTHERS,False\nmp-558557,\"{'Ba': 1.0, 'La': 4.0, 'Cu': 5.0, 'O': 12.0}\",\"('Ba', 'Cu', 'La', 'O')\",OTHERS,False\nmp-759528,\"{'Li': 3.0, 'V': 3.0, 'Fe': 3.0, 'P': 6.0, 'H': 6.0, 'O': 30.0}\",\"('Fe', 'H', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-8632,{'V': 1.0},\"('V',)\",OTHERS,False\nmp-1224665,\"{'Lu': 12.0, 'Co': 31.0, 'Sn': 16.0}\",\"('Co', 'Lu', 'Sn')\",OTHERS,False\nmp-753508,\"{'Li': 4.0, 'Cu': 4.0, 'S': 4.0}\",\"('Cu', 'Li', 'S')\",OTHERS,False\nmp-7739,\"{'F': 6.0, 'Zn': 1.0, 'Ba': 2.0}\",\"('Ba', 'F', 'Zn')\",OTHERS,False\nmp-1194394,\"{'Na': 6.0, 'C': 4.0, 'O': 16.0}\",\"('C', 'Na', 'O')\",OTHERS,False\nmp-705355,\"{'Li': 4.0, 'Mn': 2.0, 'P': 10.0, 'O': 30.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1206453,\"{'Sm': 4.0, 'Cd': 2.0, 'Cu': 4.0}\",\"('Cd', 'Cu', 'Sm')\",OTHERS,False\nmp-1213807,\"{'Ce': 8.0, 'Si': 8.0, 'Pd': 8.0}\",\"('Ce', 'Pd', 'Si')\",OTHERS,False\nmp-978929,\"{'Sr': 1.0, 'Ac': 1.0, 'Zn': 2.0}\",\"('Ac', 'Sr', 'Zn')\",OTHERS,False\nmp-555331,\"{'K': 2.0, 'Gd': 2.0, 'Pd': 2.0, 'O': 6.0}\",\"('Gd', 'K', 'O', 'Pd')\",OTHERS,False\nmp-1210918,\"{'Mg': 12.0, 'Si': 8.0, 'O': 36.0}\",\"('Mg', 'O', 'Si')\",OTHERS,False\nmp-14568,\"{'F': 8.0, 'Mg': 2.0, 'Ba': 2.0}\",\"('Ba', 'F', 'Mg')\",OTHERS,False\nmp-567808,\"{'Tm': 1.0, 'Cu': 2.0, 'Ge': 2.0}\",\"('Cu', 'Ge', 'Tm')\",OTHERS,False\nmp-758847,\"{'Li': 12.0, 'Fe': 4.0, 'P': 8.0, 'O': 32.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1232213,\"{'Y': 2.0, 'Se': 4.0}\",\"('Se', 'Y')\",OTHERS,False\nmp-1197266,\"{'Nd': 14.0, 'Se': 8.0, 'Cl': 6.0, 'O': 34.0}\",\"('Cl', 'Nd', 'O', 'Se')\",OTHERS,False\nmp-1218397,\"{'Sr': 5.0, 'Zn': 1.0, 'Cd': 4.0}\",\"('Cd', 'Sr', 'Zn')\",OTHERS,False\nmp-30313,\"{'O': 28.0, 'Se': 8.0, 'Tb': 8.0}\",\"('O', 'Se', 'Tb')\",OTHERS,False\nmp-1018651,\"{'Ba': 2.0, 'H': 3.0, 'I': 1.0}\",\"('Ba', 'H', 'I')\",OTHERS,False\nmp-31362,\"{'Na': 6.0, 'Cl': 12.0, 'Y': 2.0}\",\"('Cl', 'Na', 'Y')\",OTHERS,False\nmp-27421,\"{'F': 6.0, 'Rb': 1.0, 'Bi': 1.0}\",\"('Bi', 'F', 'Rb')\",OTHERS,False\nmp-17048,\"{'S': 16.0, 'Rb': 8.0, 'W': 4.0}\",\"('Rb', 'S', 'W')\",OTHERS,False\nmp-849672,\"{'Mn': 12.0, 'O': 2.0, 'F': 22.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-866308,\"{'Ca': 4.0, 'B': 8.0, 'H': 56.0, 'N': 8.0}\",\"('B', 'Ca', 'H', 'N')\",OTHERS,False\nmp-600219,\"{'Mn': 4.0, 'H': 48.0, 'C': 8.0, 'N': 8.0, 'Cl': 16.0}\",\"('C', 'Cl', 'H', 'Mn', 'N')\",OTHERS,False\nmp-21298,\"{'Si': 4.0, 'Np': 2.0}\",\"('Np', 'Si')\",OTHERS,False\nmvc-5849,\"{'Ca': 6.0, 'Mn': 12.0, 'O': 24.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,False\nmp-1094476,\"{'Mg': 2.0, 'Zn': 6.0}\",\"('Mg', 'Zn')\",OTHERS,False\nmp-867721,\"{'Mn': 6.0, 'Si': 6.0, 'O': 20.0}\",\"('Mn', 'O', 'Si')\",OTHERS,False\nmp-753711,\"{'Ca': 3.0, 'P': 2.0, 'O': 8.0}\",\"('Ca', 'O', 'P')\",OTHERS,False\nmp-554311,\"{'F': 6.0, 'Cr': 1.0, 'Rb': 1.0}\",\"('Cr', 'F', 'Rb')\",OTHERS,False\nmp-1228510,\"{'Ba': 2.0, 'Sr': 3.0, 'Ca': 1.0, 'Mg': 2.0, 'Si': 4.0, 'O': 16.0}\",\"('Ba', 'Ca', 'Mg', 'O', 'Si', 'Sr')\",OTHERS,False\nmp-773098,\"{'Li': 4.0, 'Mn': 3.0, 'V': 1.0, 'O': 8.0}\",\"('Li', 'Mn', 'O', 'V')\",OTHERS,False\nmp-867634,\"{'Li': 8.0, 'Mn': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-975031,\"{'Rb': 4.0, 'Be': 4.0, 'H': 12.0}\",\"('Be', 'H', 'Rb')\",OTHERS,False\nmp-1245220,\"{'Zn': 50.0, 'S': 50.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-30328,\"{'Fe': 1.0, 'Ho': 6.0, 'Bi': 2.0}\",\"('Bi', 'Fe', 'Ho')\",OTHERS,False\nmp-1077378,\"{'Cs': 2.0, 'Mn': 2.0, 'P': 2.0}\",\"('Cs', 'Mn', 'P')\",OTHERS,False\nmp-758284,\"{'Zn': 4.0, 'P': 8.0, 'H': 28.0, 'N': 4.0, 'O': 32.0}\",\"('H', 'N', 'O', 'P', 'Zn')\",OTHERS,False\nmp-1099865,\"{'La': 28.0, 'Sm': 4.0, 'Mn': 32.0, 'O': 80.0}\",\"('La', 'Mn', 'O', 'Sm')\",OTHERS,False\nmp-1187703,\"{'Y': 2.0, 'Ir': 1.0, 'Ru': 1.0}\",\"('Ir', 'Ru', 'Y')\",OTHERS,False\nmp-20720,\"{'N': 6.0, 'O': 12.0, 'Ni': 1.0, 'Pb': 2.0}\",\"('N', 'Ni', 'O', 'Pb')\",OTHERS,False\nmp-1186262,\"{'Nd': 3.0, 'Dy': 1.0}\",\"('Dy', 'Nd')\",OTHERS,False\nmp-1200604,\"{'Si': 1.0, 'P': 4.0, 'H': 28.0, 'C': 10.0, 'Cl': 4.0}\",\"('C', 'Cl', 'H', 'P', 'Si')\",OTHERS,False\nmp-1176406,\"{'Na': 8.0, 'Bi': 4.0, 'O': 12.0}\",\"('Bi', 'Na', 'O')\",OTHERS,False\nmp-767798,\"{'Ni': 17.0, 'As': 12.0, 'O': 48.0}\",\"('As', 'Ni', 'O')\",OTHERS,False\nmp-756058,\"{'Li': 2.0, 'Cr': 3.0, 'Fe': 1.0, 'O': 8.0}\",\"('Cr', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1175878,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1175965,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1072586,\"{'Sm': 1.0, 'Cd': 1.0, 'Ni': 4.0}\",\"('Cd', 'Ni', 'Sm')\",OTHERS,False\nmp-1039919,\"{'La': 1.0, 'Hf': 1.0, 'Mg': 30.0, 'O': 32.0}\",\"('Hf', 'La', 'Mg', 'O')\",OTHERS,False\nmp-756748,\"{'Sc': 4.0, 'H': 12.0, 'Cl': 8.0, 'O': 40.0}\",\"('Cl', 'H', 'O', 'Sc')\",OTHERS,False\nmp-758780,\"{'Li': 4.0, 'Bi': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Bi', 'Li', 'O', 'P')\",OTHERS,False\nmp-1101069,\"{'Cr': 2.0, 'P': 2.0, 'Se': 6.0}\",\"('Cr', 'P', 'Se')\",OTHERS,False\nmp-1227088,\"{'Ca': 6.0, 'Ag': 3.0, 'Ge': 5.0}\",\"('Ag', 'Ca', 'Ge')\",OTHERS,False\nmp-759159,\"{'Li': 5.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1095204,\"{'Tm': 4.0, 'Ni': 4.0, 'Sn': 2.0}\",\"('Ni', 'Sn', 'Tm')\",OTHERS,False\nmp-1220795,\"{'Nb': 12.0, 'Sn': 3.0, 'Sb': 1.0}\",\"('Nb', 'Sb', 'Sn')\",OTHERS,False\nmp-862965,\"{'Pm': 1.0, 'Tl': 1.0, 'Au': 2.0}\",\"('Au', 'Pm', 'Tl')\",OTHERS,False\nmp-27617,\"{'F': 4.0, 'Se': 1.0, 'Ce': 2.0}\",\"('Ce', 'F', 'Se')\",OTHERS,False\nmp-641587,\"{'Fe': 21.0, 'Mo': 2.0, 'C': 6.0}\",\"('C', 'Fe', 'Mo')\",OTHERS,False\nmp-641924,\"{'Bi': 8.0, 'Pb': 4.0, 'S': 16.0}\",\"('Bi', 'Pb', 'S')\",OTHERS,False\nmp-1225439,\"{'Fe': 2.0, 'Ni': 6.0, 'Mo': 12.0, 'N': 4.0}\",\"('Fe', 'Mo', 'N', 'Ni')\",OTHERS,False\nmp-1183803,\"{'Ce': 1.0, 'Dy': 1.0, 'Mg': 2.0}\",\"('Ce', 'Dy', 'Mg')\",OTHERS,False\nmp-1182869,\"{'Al': 4.0, 'O': 8.0}\",\"('Al', 'O')\",OTHERS,False\nmp-1106325,\"{'Ca': 1.0, 'Cu': 3.0, 'Pt': 4.0, 'O': 12.0}\",\"('Ca', 'Cu', 'O', 'Pt')\",OTHERS,False\nmp-862978,\"{'Er': 2.0, 'Ag': 1.0, 'Ru': 1.0}\",\"('Ag', 'Er', 'Ru')\",OTHERS,False\nmp-1224851,\"{'Ga': 1.0, 'Cu': 1.0, 'Ge': 1.0, 'Se': 4.0}\",\"('Cu', 'Ga', 'Ge', 'Se')\",OTHERS,False\nmp-1071036,\"{'Tb': 2.0, 'Sc': 2.0, 'Sb': 2.0}\",\"('Sb', 'Sc', 'Tb')\",OTHERS,False\nmp-1182891,\"{'Al': 2.0, 'C': 2.0, 'N': 2.0, 'O': 10.0}\",\"('Al', 'C', 'N', 'O')\",OTHERS,False\nmp-1213382,\"{'Cs': 2.0, 'Pr': 2.0, 'Nb': 12.0, 'Br': 36.0}\",\"('Br', 'Cs', 'Nb', 'Pr')\",OTHERS,False\nmp-22915,\"{'Ag': 1.0, 'I': 1.0}\",\"('Ag', 'I')\",OTHERS,False\nmp-1210351,\"{'Na': 6.0, 'Yb': 2.0, 'Br': 12.0}\",\"('Br', 'Na', 'Yb')\",OTHERS,False\nmp-1205905,\"{'Dy': 4.0, 'Ge': 4.0, 'Ru': 2.0}\",\"('Dy', 'Ge', 'Ru')\",OTHERS,False\nmvc-6278,\"{'Zn': 8.0, 'Mo': 16.0, 'O': 32.0}\",\"('Mo', 'O', 'Zn')\",OTHERS,False\nmp-767219,\"{'Li': 8.0, 'Ti': 8.0, 'Mn': 2.0, 'Co': 8.0, 'O': 36.0}\",\"('Co', 'Li', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-1113723,\"{'Rb': 2.0, 'Ag': 1.0, 'Sb': 1.0, 'I': 6.0}\",\"('Ag', 'I', 'Rb', 'Sb')\",OTHERS,False\nmp-770191,\"{'Li': 8.0, 'V': 8.0, 'S': 12.0, 'O': 48.0}\",\"('Li', 'O', 'S', 'V')\",OTHERS,False\nmp-996997,\"{'Li': 2.0, 'Ag': 2.0, 'O': 4.0}\",\"('Ag', 'Li', 'O')\",OTHERS,False\nmp-541090,\"{'Ce': 4.0, 'Se': 8.0, 'O': 24.0}\",\"('Ce', 'O', 'Se')\",OTHERS,False\nmp-23058,\"{'O': 2.0, 'Cl': 2.0, 'Nd': 2.0}\",\"('Cl', 'Nd', 'O')\",OTHERS,False\nmp-1227957,\"{'Ba': 1.0, 'Fe': 1.0, 'As': 2.0, 'Ru': 1.0}\",\"('As', 'Ba', 'Fe', 'Ru')\",OTHERS,False\nmp-1222669,\"{'Li': 2.0, 'I': 1.0, 'Br': 1.0}\",\"('Br', 'I', 'Li')\",OTHERS,False\nmp-1219556,\"{'Sb': 8.0, 'Te': 16.0, 'Pd': 12.0}\",\"('Pd', 'Sb', 'Te')\",OTHERS,False\nmp-1187158,\"{'Sr': 2.0, 'Br': 4.0}\",\"('Br', 'Sr')\",OTHERS,False\nmp-1209311,\"{'Rb': 2.0, 'Gd': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Gd', 'Mo', 'O', 'Rb')\",OTHERS,False\nmp-753738,\"{'V': 3.0, 'Co': 1.0, 'O': 8.0}\",\"('Co', 'O', 'V')\",OTHERS,False\nmp-3407,\"{'Cr': 5.0, 'Se': 8.0, 'Tl': 1.0}\",\"('Cr', 'Se', 'Tl')\",OTHERS,False\nmp-21208,\"{'F': 9.0, 'Rh': 3.0}\",\"('F', 'Rh')\",OTHERS,False\nmp-755700,\"{'Fe': 6.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1112490,\"{'Cs': 2.0, 'Tl': 1.0, 'In': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'In', 'Tl')\",OTHERS,False\nmp-1224400,\"{'In': 2.0, 'Cu': 2.0, 'Se': 2.0, 'S': 2.0}\",\"('Cu', 'In', 'S', 'Se')\",OTHERS,False\nmp-1229240,\"{'Ca': 12.0, 'Ti': 12.0, 'Si': 8.0, 'Ge': 4.0, 'O': 60.0}\",\"('Ca', 'Ge', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-27301,\"{'Cl': 16.0, 'Rb': 6.0, 'Au': 6.0}\",\"('Au', 'Cl', 'Rb')\",OTHERS,False\nmp-1229313,\"{'Ca': 2.0, 'Eu': 4.0, 'Ge': 8.0, 'O': 24.0}\",\"('Ca', 'Eu', 'Ge', 'O')\",OTHERS,False\nmp-1105201,\"{'Ba': 5.0, 'In': 4.0, 'Te': 4.0, 'S': 7.0}\",\"('Ba', 'In', 'S', 'Te')\",OTHERS,False\nmp-555948,\"{'C': 74.0, 'F': 42.0}\",\"('C', 'F')\",OTHERS,False\nmp-510232,\"{'Nd': 12.0, 'Co': 6.0, 'Sn': 1.0}\",\"('Co', 'Nd', 'Sn')\",OTHERS,False\nmp-1207440,\"{'Zr': 14.0, 'Pt': 20.0}\",\"('Pt', 'Zr')\",OTHERS,False\nmp-7238,\"{'B': 4.0, 'O': 12.0, 'Nd': 4.0}\",\"('B', 'Nd', 'O')\",OTHERS,False\nmp-1175576,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-623837,\"{'As': 2.0, 'C': 6.0, 'N': 6.0}\",\"('As', 'C', 'N')\",OTHERS,False\nmp-867529,\"{'Li': 2.0, 'Ni': 4.0, 'P': 6.0, 'O': 20.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-8215,\"{'S': 6.0, 'La': 2.0, 'Yb': 2.0}\",\"('La', 'S', 'Yb')\",OTHERS,False\nmp-1114337,\"{'Na': 2.0, 'Li': 1.0, 'Ir': 1.0, 'F': 6.0}\",\"('F', 'Ir', 'Li', 'Na')\",OTHERS,False\nmp-6691,\"{'O': 8.0, 'Cu': 4.0, 'Ba': 2.0, 'Dy': 1.0}\",\"('Ba', 'Cu', 'Dy', 'O')\",OTHERS,False\nmp-1246459,\"{'Ca': 10.0, 'Fe': 2.0, 'N': 8.0}\",\"('Ca', 'Fe', 'N')\",OTHERS,False\nmp-768749,\"{'Li': 8.0, 'Al': 2.0, 'Cr': 6.0, 'O': 16.0}\",\"('Al', 'Cr', 'Li', 'O')\",OTHERS,False\nmp-1226293,\"{'Cr': 4.0, 'In': 1.0, 'Ag': 1.0, 'S': 8.0}\",\"('Ag', 'Cr', 'In', 'S')\",OTHERS,False\nmp-1113491,\"{'Cs': 3.0, 'Sc': 1.0, 'I': 6.0}\",\"('Cs', 'I', 'Sc')\",OTHERS,False\nmp-723036,\"{'Fe': 4.0, 'H': 64.0, 'C': 16.0, 'S': 16.0, 'N': 32.0, 'Cl': 8.0}\",\"('C', 'Cl', 'Fe', 'H', 'N', 'S')\",OTHERS,False\nmp-1211285,\"{'K': 1.0, 'Ta': 1.0, 'P': 2.0, 'O': 8.0}\",\"('K', 'O', 'P', 'Ta')\",OTHERS,False\nmp-16955,\"{'Li': 12.0, 'O': 16.0, 'K': 8.0, 'Fe': 4.0}\",\"('Fe', 'K', 'Li', 'O')\",OTHERS,False\nmp-1104460,\"{'Zn': 2.0, 'P': 4.0, 'O': 8.0}\",\"('O', 'P', 'Zn')\",OTHERS,False\nmvc-15145,\"{'Zn': 3.0, 'Cu': 10.0, 'Te': 6.0, 'O': 36.0}\",\"('Cu', 'O', 'Te', 'Zn')\",OTHERS,False\nmp-17056,\"{'Li': 6.0, 'O': 24.0, 'P': 6.0, 'Zn': 6.0}\",\"('Li', 'O', 'P', 'Zn')\",OTHERS,False\nmp-554259,\"{'Sr': 4.0, 'Ag': 4.0, 'B': 28.0, 'O': 48.0}\",\"('Ag', 'B', 'O', 'Sr')\",OTHERS,False\nmp-1204743,\"{'Rb': 8.0, 'Cd': 4.0, 'C': 8.0, 'Cl': 8.0, 'O': 20.0}\",\"('C', 'Cd', 'Cl', 'O', 'Rb')\",OTHERS,False\nmp-1176538,\"{'Li': 4.0, 'V': 4.0, 'F': 16.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-567769,\"{'Ca': 1.0, 'Si': 2.0, 'Pd': 2.0}\",\"('Ca', 'Pd', 'Si')\",OTHERS,False\nmp-1187241,\"{'Ta': 2.0, 'Ir': 6.0}\",\"('Ir', 'Ta')\",OTHERS,False\nmp-27422,\"{'F': 6.0, 'Cs': 1.0, 'Bi': 1.0}\",\"('Bi', 'Cs', 'F')\",OTHERS,False\nmp-1019270,\"{'Ta': 2.0, 'Ti': 1.0, 'N': 3.0}\",\"('N', 'Ta', 'Ti')\",OTHERS,False\nmp-1222465,\"{'Lu': 12.0, 'Co': 9.0}\",\"('Co', 'Lu')\",OTHERS,False\nmp-1096564,\"{'Sr': 2.0, 'Zn': 1.0, 'Cd': 1.0}\",\"('Cd', 'Sr', 'Zn')\",OTHERS,False\nmp-560547,\"{'K': 2.0, 'Cr': 2.0, 'F': 6.0}\",\"('Cr', 'F', 'K')\",OTHERS,False\nmp-1218965,\"{'Sm': 1.0, 'U': 1.0, 'N': 2.0}\",\"('N', 'Sm', 'U')\",OTHERS,False\nmp-1184811,\"{'In': 2.0, 'Ga': 6.0}\",\"('Ga', 'In')\",OTHERS,False\nmp-25929,\"{'Li': 6.0, 'O': 24.0, 'P': 6.0, 'Bi': 4.0}\",\"('Bi', 'Li', 'O', 'P')\",OTHERS,False\nmp-1111388,\"{'K': 3.0, 'Pr': 1.0, 'Br': 6.0}\",\"('Br', 'K', 'Pr')\",OTHERS,False\nmp-1194097,\"{'In': 1.0, 'Co': 22.0, 'B': 6.0}\",\"('B', 'Co', 'In')\",OTHERS,False\nmp-1080849,\"{'K': 16.0, 'Re': 16.0, 'N': 32.0}\",\"('K', 'N', 'Re')\",OTHERS,False\nmvc-10961,\"{'V': 8.0, 'O': 18.0}\",\"('O', 'V')\",OTHERS,False\nmp-582399,\"{'Pu': 6.0, 'Pd': 10.0}\",\"('Pd', 'Pu')\",OTHERS,False\nmp-554529,\"{'Ba': 24.0, 'Ti': 12.0, 'O': 48.0}\",\"('Ba', 'O', 'Ti')\",OTHERS,False\nmp-1147675,\"{'Rh': 6.0, 'Cl': 8.0}\",\"('Cl', 'Rh')\",OTHERS,False\nmp-557176,\"{'Ba': 10.0, 'B': 8.0, 'O': 20.0, 'F': 4.0}\",\"('B', 'Ba', 'F', 'O')\",OTHERS,False\nmp-1028528,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1194044,\"{'V': 16.0, 'Co': 8.0, 'N': 4.0}\",\"('Co', 'N', 'V')\",OTHERS,False\nmp-761151,\"{'Zr': 6.0, 'O': 11.0}\",\"('O', 'Zr')\",OTHERS,False\nmp-1099932,\"{'K': 1.0, 'Na': 7.0, 'V': 6.0, 'Cr': 2.0, 'O': 24.0}\",\"('Cr', 'K', 'Na', 'O', 'V')\",OTHERS,False\nmp-1220910,\"{'Na': 2.0, 'Ta': 2.0, 'W': 2.0, 'O': 14.0}\",\"('Na', 'O', 'Ta', 'W')\",OTHERS,False\nmp-780186,\"{'Li': 9.0, 'Mn': 10.0, 'O': 20.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1218235,\"{'Sr': 1.0, 'Gd': 1.0, 'Ni': 1.0, 'O': 4.0}\",\"('Gd', 'Ni', 'O', 'Sr')\",OTHERS,False\nmp-752542,\"{'Li': 2.0, 'Ti': 2.0, 'Mn': 3.0, 'O': 10.0}\",\"('Li', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-758792,\"{'Li': 18.0, 'Cr': 6.0, 'Si': 12.0, 'O': 42.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,False\nmp-7280,\"{'P': 8.0, 'S': 8.0, 'Pd': 8.0}\",\"('P', 'Pd', 'S')\",OTHERS,False\nmp-614572,\"{'Ca': 12.0, 'In': 4.0, 'P': 12.0}\",\"('Ca', 'In', 'P')\",OTHERS,False\nmp-1218689,\"{'Sr': 2.0, 'V': 11.0, 'Ni': 1.0, 'O': 22.0}\",\"('Ni', 'O', 'Sr', 'V')\",OTHERS,False\nmp-978285,\"{'Mg': 3.0, 'Mn': 1.0}\",\"('Mg', 'Mn')\",OTHERS,False\nmp-1346,\"{'B': 12.0, 'O': 2.0}\",\"('B', 'O')\",OTHERS,False\nmp-1203746,\"{'As': 4.0, 'S': 4.0, 'Xe': 4.0, 'N': 4.0, 'F': 40.0}\",\"('As', 'F', 'N', 'S', 'Xe')\",OTHERS,False\nmp-1084775,\"{'Sc': 3.0, 'Sn': 3.0, 'Pt': 3.0}\",\"('Pt', 'Sc', 'Sn')\",OTHERS,False\nmp-1186318,\"{'Nd': 2.0, 'Lu': 6.0}\",\"('Lu', 'Nd')\",OTHERS,False\nmp-1080851,\"{'Ce': 12.0, 'Se': 24.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-1219139,\"{'Sm': 1.0, 'Er': 3.0, 'Fe': 34.0}\",\"('Er', 'Fe', 'Sm')\",OTHERS,False\nmp-1080018,\"{'Th': 2.0, 'Co': 4.0, 'Sn': 4.0}\",\"('Co', 'Sn', 'Th')\",OTHERS,False\nmp-1246063,\"{'V': 2.0, 'Co': 8.0, 'N': 8.0}\",\"('Co', 'N', 'V')\",OTHERS,False\nmp-1184754,\"{'K': 2.0, 'Rb': 1.0, 'Bi': 1.0}\",\"('Bi', 'K', 'Rb')\",OTHERS,False\nmp-759818,\"{'W': 8.0, 'O': 8.0, 'F': 32.0}\",\"('F', 'O', 'W')\",OTHERS,False\nmp-752429,\"{'Sc': 4.0, 'Tl': 4.0, 'O': 12.0}\",\"('O', 'Sc', 'Tl')\",OTHERS,False\nmp-684604,\"{'Cu': 2.0, 'S': 4.0}\",\"('Cu', 'S')\",OTHERS,False\nmvc-9199,\"{'Mg': 4.0, 'Fe': 12.0, 'O': 28.0}\",\"('Fe', 'Mg', 'O')\",OTHERS,False\nmp-19061,\"{'Li': 4.0, 'O': 24.0, 'Si': 8.0, 'Fe': 4.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1232039,\"{'La': 16.0, 'Mg': 8.0, 'Se': 32.0}\",\"('La', 'Mg', 'Se')\",OTHERS,False\nmp-1186392,\"{'Pa': 1.0, 'Be': 1.0, 'O': 3.0}\",\"('Be', 'O', 'Pa')\",OTHERS,False\nmp-7541,\"{'P': 6.0, 'Sn': 2.0}\",\"('P', 'Sn')\",OTHERS,False\nmp-31090,\"{'Pd': 4.0, 'Er': 4.0, 'Pb': 2.0}\",\"('Er', 'Pb', 'Pd')\",OTHERS,False\nmp-1492,\"{'Cd': 3.0, 'Te': 3.0}\",\"('Cd', 'Te')\",OTHERS,False\nmp-1191414,\"{'Y': 6.0, 'Cl': 4.0, 'O': 12.0}\",\"('Cl', 'O', 'Y')\",OTHERS,False\nmp-1205603,\"{'Tb': 2.0, 'Si': 2.0, 'Ru': 4.0, 'C': 2.0}\",\"('C', 'Ru', 'Si', 'Tb')\",OTHERS,False\nmp-559405,\"{'Rb': 1.0, 'U': 2.0, 'Sb': 1.0, 'S': 8.0}\",\"('Rb', 'S', 'Sb', 'U')\",OTHERS,False\nmp-1039962,\"{'Ce': 1.0, 'Mg': 30.0, 'B': 1.0, 'O': 32.0}\",\"('B', 'Ce', 'Mg', 'O')\",OTHERS,False\nmp-758334,\"{'Li': 6.0, 'Cr': 3.0, 'Sb': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1245578,\"{'Li': 1.0, 'Pt': 1.0, 'N': 1.0}\",\"('Li', 'N', 'Pt')\",OTHERS,False\nmp-568666,\"{'Rb': 2.0, 'Au': 2.0, 'I': 6.0}\",\"('Au', 'I', 'Rb')\",OTHERS,False\nmp-758498,\"{'Li': 4.0, 'Cu': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Cu', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1225306,\"{'Dy': 2.0, 'Si': 3.0, 'Ni': 1.0}\",\"('Dy', 'Ni', 'Si')\",OTHERS,False\nmp-865764,\"{'Yb': 1.0, 'Gd': 1.0, 'Rh': 2.0}\",\"('Gd', 'Rh', 'Yb')\",OTHERS,False\nmp-1216863,\"{'Ti': 2.0, 'Nb': 2.0, 'Bi': 6.0, 'O': 18.0}\",\"('Bi', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-1094619,\"{'Mg': 8.0, 'Ga': 4.0}\",\"('Ga', 'Mg')\",OTHERS,False\nmp-1183990,\"{'Ga': 2.0, 'O': 2.0}\",\"('Ga', 'O')\",OTHERS,False\nmp-26585,\"{'Li': 10.0, 'O': 36.0, 'P': 10.0, 'Sb': 4.0}\",\"('Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-2563,\"{'Se': 1.0, 'Ce': 1.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-1218906,\"{'Sr': 10.0, 'Mg': 5.0, 'Mo': 3.0, 'W': 2.0, 'O': 30.0}\",\"('Mg', 'Mo', 'O', 'Sr', 'W')\",OTHERS,False\nmp-974627,\"{'K': 3.0, 'Tl': 1.0}\",\"('K', 'Tl')\",OTHERS,False\nmp-1174401,\"{'Li': 7.0, 'Co': 5.0, 'O': 12.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-23565,\"{'O': 14.0, 'Cr': 4.0, 'Ag': 1.0, 'Bi': 1.0}\",\"('Ag', 'Bi', 'Cr', 'O')\",OTHERS,False\nmp-631535,\"{'Be': 1.0, 'W': 2.0, 'Cl': 1.0}\",\"('Be', 'Cl', 'W')\",OTHERS,False\nmp-768536,\"{'Cs': 12.0, 'La': 4.0, 'O': 12.0}\",\"('Cs', 'La', 'O')\",OTHERS,False\nmp-1212318,\"{'Na': 1.0, 'Yb': 3.0, 'Se': 6.0}\",\"('Na', 'Se', 'Yb')\",OTHERS,False\nmp-1232409,\"{'Nb': 16.0, 'Si': 4.0, 'Te': 16.0}\",\"('Nb', 'Si', 'Te')\",OTHERS,False\nmp-1210642,\"{'Mn': 4.0, 'Te': 4.0, 'O': 12.0}\",\"('Mn', 'O', 'Te')\",OTHERS,False\nmp-9348,\"{'F': 6.0, 'K': 1.0, 'Sc': 1.0, 'Rb': 2.0}\",\"('F', 'K', 'Rb', 'Sc')\",OTHERS,False\nmp-694992,\"{'Co': 1.0, 'P': 2.0, 'H': 18.0, 'N': 6.0, 'F': 12.0}\",\"('Co', 'F', 'H', 'N', 'P')\",OTHERS,False\nmp-23548,\"{'Ag': 2.0, 'Bi': 2.0, 'O': 6.0}\",\"('Ag', 'Bi', 'O')\",OTHERS,False\nmp-1076893,\"{'Ba': 8.0, 'Sr': 24.0, 'Co': 20.0, 'Cu': 12.0, 'O': 80.0}\",\"('Ba', 'Co', 'Cu', 'O', 'Sr')\",OTHERS,False\nmp-1247384,\"{'Mg': 2.0, 'Mn': 1.0, 'W': 3.0, 'S': 8.0}\",\"('Mg', 'Mn', 'S', 'W')\",OTHERS,False\nmp-2607,\"{'Ge': 3.0, 'U': 1.0}\",\"('Ge', 'U')\",OTHERS,False\nmp-1095886,\"{'Hf': 2.0, 'Ni': 1.0, 'Rh': 1.0}\",\"('Hf', 'Ni', 'Rh')\",OTHERS,False\nmp-1219653,\"{'Pu': 1.0, 'Zr': 1.0}\",\"('Pu', 'Zr')\",OTHERS,False\nmp-1185355,\"{'Li': 2.0, 'Eu': 6.0}\",\"('Eu', 'Li')\",OTHERS,False\nmp-865615,\"{'Ga': 1.0, 'Si': 1.0, 'Ru': 2.0}\",\"('Ga', 'Ru', 'Si')\",OTHERS,False\nmp-971975,\"{'Sr': 1.0, 'Hg': 1.0, 'O': 3.0}\",\"('Hg', 'O', 'Sr')\",OTHERS,False\nmp-762514,\"{'Li': 4.0, 'Mn': 12.0, 'O': 24.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1246222,\"{'Mn': 6.0, 'Si': 12.0, 'N': 22.0}\",\"('Mn', 'N', 'Si')\",OTHERS,False\nmp-504450,\"{'Tl': 4.0, 'F': 20.0, 'Be': 8.0}\",\"('Be', 'F', 'Tl')\",OTHERS,False\nmp-1183144,{'Al': 4.0},\"('Al',)\",OTHERS,False\nmp-1073115,\"{'Mg': 8.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1211663,\"{'K': 4.0, 'Gd': 8.0, 'Cl': 28.0}\",\"('Cl', 'Gd', 'K')\",OTHERS,False\nmp-1218860,\"{'Sr': 6.0, 'Tl': 3.0, 'Cu': 3.0, 'O': 16.0}\",\"('Cu', 'O', 'Sr', 'Tl')\",OTHERS,False\nmp-672695,\"{'K': 4.0, 'Ag': 4.0, 'C': 4.0, 'O': 12.0}\",\"('Ag', 'C', 'K', 'O')\",OTHERS,False\nmp-1195181,\"{'Co': 16.0, 'Se': 12.0, 'Cl': 8.0, 'O': 36.0}\",\"('Cl', 'Co', 'O', 'Se')\",OTHERS,False\nmp-1225645,\"{'Er': 4.0, 'Fe': 1.0, 'S': 7.0}\",\"('Er', 'Fe', 'S')\",OTHERS,False\nmp-1199833,\"{'Cs': 40.0, 'Tl': 24.0, 'Si': 4.0, 'O': 16.0}\",\"('Cs', 'O', 'Si', 'Tl')\",OTHERS,False\nmp-571634,\"{'Yb': 10.0, 'Pb': 6.0}\",\"('Pb', 'Yb')\",OTHERS,False\nmp-1079538,\"{'V': 2.0, 'H': 2.0, 'O': 5.0}\",\"('H', 'O', 'V')\",OTHERS,False\nmp-1200466,\"{'Rb': 8.0, 'Sb': 8.0, 'S': 4.0, 'O': 20.0, 'F': 24.0}\",\"('F', 'O', 'Rb', 'S', 'Sb')\",OTHERS,False\nmp-1080734,\"{'Ce': 2.0, 'B': 4.0, 'Os': 4.0}\",\"('B', 'Ce', 'Os')\",OTHERS,False\nmp-867704,\"{'Li': 2.0, 'Ni': 2.0, 'P': 6.0, 'O': 18.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-13570,\"{'Mg': 2.0, 'Sc': 4.0, 'Ga': 4.0}\",\"('Ga', 'Mg', 'Sc')\",OTHERS,False\nmp-1228844,\"{'Er': 20.0, 'Cu': 6.0, 'Pb': 9.0, 'S': 42.0}\",\"('Cu', 'Er', 'Pb', 'S')\",OTHERS,False\nmp-1025238,\"{'Tm': 1.0, 'Ti': 2.0, 'Ga': 4.0}\",\"('Ga', 'Ti', 'Tm')\",OTHERS,False\nmp-981387,\"{'Hg': 3.0, 'Bi': 1.0}\",\"('Bi', 'Hg')\",OTHERS,False\nmp-1096807,\"{'Al': 1.0, 'O': 3.0, 'F': 3.0}\",\"('Al', 'F', 'O')\",OTHERS,False\nmp-752849,\"{'Y': 4.0, 'Pb': 4.0, 'O': 14.0}\",\"('O', 'Pb', 'Y')\",OTHERS,False\nmp-1101094,\"{'Cs': 2.0, 'Ce': 1.0, 'Cl': 6.0}\",\"('Ce', 'Cl', 'Cs')\",OTHERS,False\nmp-1226220,\"{'Cr': 1.0, 'Ga': 1.0, 'Fe': 2.0}\",\"('Cr', 'Fe', 'Ga')\",OTHERS,False\nmp-542120,\"{'Ba': 8.0, 'Fe': 4.0, 'O': 16.0}\",\"('Ba', 'Fe', 'O')\",OTHERS,False\nmp-1227295,\"{'Be': 4.0, 'Ni': 1.0, 'Ge': 1.0}\",\"('Be', 'Ge', 'Ni')\",OTHERS,False\nmp-1197847,\"{'Pr': 5.0, 'Mg': 41.0}\",\"('Mg', 'Pr')\",OTHERS,False\nmp-1211742,\"{'K': 4.0, 'Tb': 4.0, 'H': 4.0, 'S': 8.0, 'O': 32.0}\",\"('H', 'K', 'O', 'S', 'Tb')\",OTHERS,False\nmp-1215799,\"{'Yb': 5.0, 'Se': 7.0}\",\"('Se', 'Yb')\",OTHERS,False\nmp-1229104,\"{'Al': 2.0, 'H': 30.0, 'O': 12.0, 'F': 12.0}\",\"('Al', 'F', 'H', 'O')\",OTHERS,False\nmp-1200518,\"{'In': 2.0, 'Re': 8.0, 'C': 28.0, 'I': 6.0, 'O': 28.0}\",\"('C', 'I', 'In', 'O', 'Re')\",OTHERS,False\nmp-1186950,\"{'Sc': 2.0, 'In': 1.0, 'Hg': 1.0}\",\"('Hg', 'In', 'Sc')\",OTHERS,False\nmp-26887,\"{'Li': 4.0, 'V': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1093847,\"{'Ba': 2.0, 'Pd': 1.0, 'Au': 1.0}\",\"('Au', 'Ba', 'Pd')\",OTHERS,False\nmp-981208,\"{'Y': 1.0, 'Tm': 1.0, 'Hg': 2.0}\",\"('Hg', 'Tm', 'Y')\",OTHERS,False\nmp-26855,\"{'Li': 4.0, 'O': 24.0, 'P': 8.0, 'Sn': 2.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1178425,\"{'Co': 3.0, 'F': 9.0}\",\"('Co', 'F')\",OTHERS,False\nmp-1216851,\"{'V': 32.0, 'N': 3.0}\",\"('N', 'V')\",OTHERS,False\nmp-8842,\"{'Si': 4.0, 'Ca': 4.0, 'Pd': 4.0}\",\"('Ca', 'Pd', 'Si')\",OTHERS,False\nmp-1030405,\"{'Te': 4.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-979420,\"{'Y': 1.0, 'Er': 1.0, 'Ir': 2.0}\",\"('Er', 'Ir', 'Y')\",OTHERS,False\nmp-759667,\"{'Li': 8.0, 'Sn': 4.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'O', 'Sn')\",OTHERS,False\nmvc-15702,\"{'Zn': 1.0, 'Sn': 2.0, 'N': 2.0}\",\"('N', 'Sn', 'Zn')\",OTHERS,False\nmp-1105934,\"{'Li': 2.0, 'Mn': 2.0, 'As': 2.0, 'O': 10.0}\",\"('As', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1019532,\"{'Ba': 4.0, 'Al': 16.0, 'O': 28.0}\",\"('Al', 'Ba', 'O')\",OTHERS,False\nmp-769266,\"{'Ca': 12.0, 'Ta': 8.0, 'O': 32.0}\",\"('Ca', 'O', 'Ta')\",OTHERS,False\nmp-645962,\"{'La': 8.0, 'B': 28.0, 'O': 54.0}\",\"('B', 'La', 'O')\",OTHERS,False\nmp-753668,\"{'Ba': 2.0, 'Gd': 1.0, 'Sb': 1.0, 'O': 6.0}\",\"('Ba', 'Gd', 'O', 'Sb')\",OTHERS,False\nmp-753816,\"{'Na': 12.0, 'Mg': 2.0, 'O': 8.0}\",\"('Mg', 'Na', 'O')\",OTHERS,False\nmp-14116,\"{'O': 2.0, 'Cu': 1.0, 'Rh': 1.0}\",\"('Cu', 'O', 'Rh')\",OTHERS,False\nmp-1070603,\"{'Sm': 1.0, 'Si': 2.0, 'Ir': 2.0}\",\"('Ir', 'Si', 'Sm')\",OTHERS,False\nmp-646420,\"{'Nd': 4.0, 'In': 2.0, 'Rh': 4.0}\",\"('In', 'Nd', 'Rh')\",OTHERS,False\nmp-1038779,\"{'Mg': 3.0, 'Al': 3.0}\",\"('Al', 'Mg')\",OTHERS,False\nmp-771143,\"{'Na': 6.0, 'Ni': 2.0, 'B': 2.0, 'S': 2.0, 'O': 14.0}\",\"('B', 'Na', 'Ni', 'O', 'S')\",OTHERS,False\nmp-780697,\"{'Mn': 10.0, 'O': 5.0, 'F': 15.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-695452,\"{'K': 2.0, 'Al': 11.0, 'Si': 13.0, 'Ag': 9.0, 'O': 48.0}\",\"('Ag', 'Al', 'K', 'O', 'Si')\",OTHERS,False\nmp-1227292,\"{'Be': 4.0, 'Cu': 1.0, 'Ge': 1.0}\",\"('Be', 'Cu', 'Ge')\",OTHERS,False\nmp-554763,\"{'Np': 4.0, 'Ag': 4.0, 'Se': 4.0, 'O': 20.0}\",\"('Ag', 'Np', 'O', 'Se')\",OTHERS,False\nmp-642821,\"{'K': 6.0, 'H': 10.0, 'Pt': 2.0}\",\"('H', 'K', 'Pt')\",OTHERS,False\nmp-1186245,\"{'Nd': 2.0, 'Ho': 2.0, 'O': 5.0}\",\"('Ho', 'Nd', 'O')\",OTHERS,False\nmp-1094517,\"{'Mg': 4.0, 'Sn': 2.0}\",\"('Mg', 'Sn')\",OTHERS,False\nmp-615760,\"{'Ba': 10.0, 'In': 4.0, 'Sb': 12.0}\",\"('Ba', 'In', 'Sb')\",OTHERS,False\nmp-1020711,\"{'Rb': 4.0, 'Si': 2.0, 'S': 12.0, 'O': 42.0}\",\"('O', 'Rb', 'S', 'Si')\",OTHERS,False\nmp-23237,\"{'F': 12.0, 'Bi': 4.0}\",\"('Bi', 'F')\",OTHERS,False\nmp-1079460,\"{'Ti': 6.0, 'Sn': 2.0}\",\"('Sn', 'Ti')\",OTHERS,False\nmp-23811,\"{'H': 6.0, 'B': 2.0, 'O': 20.0, 'P': 4.0, 'Ca': 2.0, 'Ni': 2.0}\",\"('B', 'Ca', 'H', 'Ni', 'O', 'P')\",OTHERS,False\nmp-757227,\"{'Li': 8.0, 'Fe': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1097440,\"{'Ca': 1.0, 'Sc': 1.0, 'Rh': 2.0}\",\"('Ca', 'Rh', 'Sc')\",OTHERS,False\nmp-1114417,\"{'Rb': 2.0, 'Li': 1.0, 'Ce': 1.0, 'Cl': 6.0}\",\"('Ce', 'Cl', 'Li', 'Rb')\",OTHERS,False\nmp-1114491,\"{'Rb': 3.0, 'Au': 1.0, 'Br': 6.0}\",\"('Au', 'Br', 'Rb')\",OTHERS,False\nmp-547069,\"{'Fe': 1.0, 'Bi': 1.0, 'O': 3.0}\",\"('Bi', 'Fe', 'O')\",OTHERS,False\nmp-1207406,\"{'Zr': 10.0, 'Al': 6.0, 'N': 2.0}\",\"('Al', 'N', 'Zr')\",OTHERS,False\nmp-1028492,\"{'Te': 2.0, 'W': 4.0, 'S': 6.0}\",\"('S', 'Te', 'W')\",OTHERS,False\nmp-1183621,\"{'Cd': 3.0, 'Pd': 1.0}\",\"('Cd', 'Pd')\",OTHERS,False\nmp-675287,\"{'Cs': 2.0, 'Cu': 2.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Cu')\",OTHERS,False\nmp-1256151,\"{'Zr': 10.0, 'Al': 2.0, 'Ni': 8.0}\",\"('Al', 'Ni', 'Zr')\",OTHERS,False\nmp-976804,\"{'Ni': 1.0, 'Ag': 1.0, 'Te': 2.0}\",\"('Ag', 'Ni', 'Te')\",OTHERS,False\nmp-1183266,\"{'Ac': 2.0, 'Pr': 6.0}\",\"('Ac', 'Pr')\",OTHERS,False\nmp-556938,\"{'Pr': 30.0, 'Ti': 24.0, 'Se': 58.0, 'I': 8.0, 'O': 25.0}\",\"('I', 'O', 'Pr', 'Se', 'Ti')\",OTHERS,False\nmp-1184616,\"{'Ho': 2.0, 'Mg': 1.0, 'Os': 1.0}\",\"('Ho', 'Mg', 'Os')\",OTHERS,False\nmp-1210013,\"{'Nb': 4.0, 'Fe': 8.0, 'O': 18.0}\",\"('Fe', 'Nb', 'O')\",OTHERS,False\nmp-647218,\"{'Re': 8.0, 'P': 8.0, 'O': 44.0}\",\"('O', 'P', 'Re')\",OTHERS,False\nmp-1036617,\"{'Mg': 14.0, 'Al': 1.0, 'V': 1.0, 'O': 16.0}\",\"('Al', 'Mg', 'O', 'V')\",OTHERS,False\nmp-1214317,\"{'Ca': 12.0, 'Ga': 8.0, 'Sn': 12.0, 'O': 48.0}\",\"('Ca', 'Ga', 'O', 'Sn')\",OTHERS,False\nmvc-4610,\"{'Y': 2.0, 'Co': 4.0, 'O': 8.0}\",\"('Co', 'O', 'Y')\",OTHERS,False\nmp-22036,\"{'Zr': 4.0, 'Pd': 4.0, 'Sb': 4.0}\",\"('Pd', 'Sb', 'Zr')\",OTHERS,False\nmp-680450,\"{'K': 32.0, 'Li': 16.0, 'Sn': 64.0}\",\"('K', 'Li', 'Sn')\",OTHERS,False\nmp-769627,\"{'V': 2.0, 'Cr': 1.0, 'Fe': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Fe', 'O', 'P', 'V')\",OTHERS,False\nmp-667315,\"{'Sc': 4.0, 'Nb': 24.0, 'Cl': 52.0, 'O': 12.0}\",\"('Cl', 'Nb', 'O', 'Sc')\",OTHERS,False\nmp-768602,\"{'Li': 4.0, 'Fe': 5.0, 'Sb': 3.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Sb')\",OTHERS,False\nmp-1226309,\"{'Cr': 2.0, 'Cu': 2.0, 'S': 8.0}\",\"('Cr', 'Cu', 'S')\",OTHERS,False\nmp-1218614,\"{'Sr': 4.0, 'Li': 1.0, 'Ru': 3.0, 'O': 12.0}\",\"('Li', 'O', 'Ru', 'Sr')\",OTHERS,False\nmp-28558,\"{'Ge': 4.0, 'Br': 12.0, 'Rb': 4.0}\",\"('Br', 'Ge', 'Rb')\",OTHERS,False\nmp-1237663,\"{'Tl': 8.0, 'P': 4.0, 'O': 16.0}\",\"('O', 'P', 'Tl')\",OTHERS,False\nmp-555869,\"{'Li': 2.0, 'V': 4.0, 'O': 10.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1221599,\"{'Mn': 1.0, 'V': 1.0, 'Co': 4.0, 'Si': 2.0}\",\"('Co', 'Mn', 'Si', 'V')\",OTHERS,False\nmp-12628,{'Rb': 8.0},\"('Rb',)\",OTHERS,False\nmp-559019,\"{'Nd': 24.0, 'S': 16.0, 'Br': 4.0, 'N': 12.0}\",\"('Br', 'N', 'Nd', 'S')\",OTHERS,False\nmp-22707,\"{'Ag': 2.0, 'Sb': 2.0, 'Eu': 2.0}\",\"('Ag', 'Eu', 'Sb')\",OTHERS,False\nmp-626307,\"{'Fe': 4.0, 'H': 4.0, 'O': 8.0}\",\"('Fe', 'H', 'O')\",OTHERS,False\nmp-1221059,\"{'Na': 2.0, 'Sb': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Na', 'O', 'Sb', 'W')\",OTHERS,False\nmp-1211359,\"{'La': 1.0, 'Mn': 3.0, 'Cr': 4.0, 'O': 12.0}\",\"('Cr', 'La', 'Mn', 'O')\",OTHERS,False\nmp-1218554,\"{'Sr': 7.0, 'Y': 6.0, 'O': 1.0, 'F': 30.0}\",\"('F', 'O', 'Sr', 'Y')\",OTHERS,False\nmp-1009770,\"{'Ru': 1.0, 'N': 1.0}\",\"('N', 'Ru')\",OTHERS,False\nmp-972486,\"{'Sm': 3.0, 'Ti': 1.0}\",\"('Sm', 'Ti')\",OTHERS,False\nmp-1187986,\"{'Yb': 6.0, 'Sc': 2.0}\",\"('Sc', 'Yb')\",OTHERS,False\nmp-1097707,\"{'Cu': 96.0, 'Se': 48.0}\",\"('Cu', 'Se')\",OTHERS,False\nmp-1225740,\"{'Er': 2.0, 'Mn': 3.0, 'Sb': 3.0, 'O': 14.0}\",\"('Er', 'Mn', 'O', 'Sb')\",OTHERS,False\nmp-1221596,\"{'Mn': 2.0, 'Mo': 2.0, 'As': 4.0}\",\"('As', 'Mn', 'Mo')\",OTHERS,False\nmp-621852,\"{'La': 4.0, 'Ge': 10.0, 'Ru': 6.0}\",\"('Ge', 'La', 'Ru')\",OTHERS,False\nmp-21635,\"{'O': 24.0, 'Mn': 4.0, 'Ge': 8.0, 'Ce': 2.0}\",\"('Ce', 'Ge', 'Mn', 'O')\",OTHERS,False\nmp-626553,\"{'Ca': 2.0, 'H': 32.0, 'O': 20.0}\",\"('Ca', 'H', 'O')\",OTHERS,False\nmp-765076,\"{'Li': 4.0, 'Mn': 4.0, 'O': 4.0, 'F': 8.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1224583,\"{'Hf': 4.0, 'Ga': 4.0, 'Co': 4.0}\",\"('Co', 'Ga', 'Hf')\",OTHERS,False\nmp-690136,\"{'Mg': 4.0, 'Al': 3.0, 'H': 17.0, 'O': 17.0}\",\"('Al', 'H', 'Mg', 'O')\",OTHERS,False\nmp-1213827,\"{'Ce': 8.0, 'Ge': 1.0, 'Pd': 24.0}\",\"('Ce', 'Ge', 'Pd')\",OTHERS,False\nmp-251,\"{'N': 1.0, 'Ta': 1.0}\",\"('N', 'Ta')\",OTHERS,False\nmp-981396,\"{'Y': 2.0, 'B': 8.0, 'Ir': 8.0}\",\"('B', 'Ir', 'Y')\",OTHERS,False\nmp-1184569,{'Hg': 2.0},\"('Hg',)\",OTHERS,False\nmp-1203078,\"{'Sm': 4.0, 'Er': 11.0, 'S': 22.0}\",\"('Er', 'S', 'Sm')\",OTHERS,False\nmp-977548,\"{'Nd': 4.0, 'Mg': 2.0, 'Ge': 4.0}\",\"('Ge', 'Mg', 'Nd')\",OTHERS,False\nmp-1182250,\"{'Cd': 8.0, 'Se': 8.0, 'O': 30.0}\",\"('Cd', 'O', 'Se')\",OTHERS,False\nmp-568570,\"{'Cs': 4.0, 'Sn': 4.0, 'I': 12.0}\",\"('Cs', 'I', 'Sn')\",OTHERS,False\nmp-1213056,\"{'Dy': 2.0, 'Al': 20.0, 'Fe': 4.0}\",\"('Al', 'Dy', 'Fe')\",OTHERS,False\nmp-20792,\"{'Ca': 4.0, 'Pd': 4.0, 'In': 2.0}\",\"('Ca', 'In', 'Pd')\",OTHERS,False\nmp-1106250,\"{'Gd': 10.0, 'Pb': 6.0}\",\"('Gd', 'Pb')\",OTHERS,False\nmp-1102945,\"{'Hf': 4.0, 'Ge': 4.0, 'Rh': 4.0}\",\"('Ge', 'Hf', 'Rh')\",OTHERS,False\nmp-1199032,\"{'Ni': 6.0, 'B': 6.0, 'P': 6.0, 'O': 36.0}\",\"('B', 'Ni', 'O', 'P')\",OTHERS,False\nmp-504616,\"{'Ce': 4.0, 'Co': 14.0, 'B': 6.0}\",\"('B', 'Ce', 'Co')\",OTHERS,False\nmp-1187954,\"{'Zn': 1.0, 'In': 3.0}\",\"('In', 'Zn')\",OTHERS,False\nmp-557250,\"{'Hg': 4.0, 'I': 4.0, 'N': 4.0, 'O': 12.0}\",\"('Hg', 'I', 'N', 'O')\",OTHERS,False\nmp-1206322,\"{'Ce': 2.0, 'Ag': 4.0}\",\"('Ag', 'Ce')\",OTHERS,False\nmp-117,{'Sn': 2.0},\"('Sn',)\",OTHERS,False\nmp-1215507,\"{'Yb': 1.0, 'Zn': 1.0, 'Cu': 1.0, 'As': 2.0}\",\"('As', 'Cu', 'Yb', 'Zn')\",OTHERS,False\nmp-34234,\"{'Al': 12.0, 'Ni': 6.0, 'O': 24.0}\",\"('Al', 'Ni', 'O')\",OTHERS,False\nmp-1228896,\"{'Ba': 10.0, 'Bi': 2.0, 'Pb': 8.0, 'O': 30.0}\",\"('Ba', 'Bi', 'O', 'Pb')\",OTHERS,False\nmp-555988,\"{'Na': 8.0, 'U': 2.0, 'Cr': 6.0, 'O': 28.0}\",\"('Cr', 'Na', 'O', 'U')\",OTHERS,False\nmp-1184036,\"{'Ga': 2.0, 'Ag': 6.0}\",\"('Ag', 'Ga')\",OTHERS,False\nmp-18297,\"{'N': 16.0, 'Ga': 8.0, 'Ba': 12.0}\",\"('Ba', 'Ga', 'N')\",OTHERS,False\nmp-1239251,\"{'Ta': 2.0, 'Cr': 6.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cr', 'Cu', 'S', 'Ta')\",OTHERS,False\nmp-867819,\"{'Li': 3.0, 'Cr': 3.0, 'S': 6.0, 'O': 24.0}\",\"('Cr', 'Li', 'O', 'S')\",OTHERS,False\nmp-26675,\"{'Li': 4.0, 'O': 48.0, 'P': 16.0, 'Sb': 4.0}\",\"('Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-22097,\"{'O': 12.0, 'Mo': 2.0, 'Rh': 4.0}\",\"('Mo', 'O', 'Rh')\",OTHERS,False\nmp-24681,\"{'H': 18.0, 'N': 6.0, 'O': 8.0, 'Cl': 4.0, 'Cr': 1.0, 'Cs': 1.0}\",\"('Cl', 'Cr', 'Cs', 'H', 'N', 'O')\",OTHERS,False\nmp-605437,\"{'Fe': 4.0, 'H': 4.0, 'O': 8.0}\",\"('Fe', 'H', 'O')\",OTHERS,False\nmp-580,\"{'B': 2.0, 'Pu': 1.0}\",\"('B', 'Pu')\",OTHERS,False\nmp-1187938,\"{'Yb': 1.0, 'Ag': 1.0, 'Au': 2.0}\",\"('Ag', 'Au', 'Yb')\",OTHERS,False\nmp-569302,\"{'Gd': 1.0, 'Si': 2.0, 'Ru': 2.0}\",\"('Gd', 'Ru', 'Si')\",OTHERS,False\nmp-768149,\"{'Dy': 6.0, 'In': 6.0, 'O': 18.0}\",\"('Dy', 'In', 'O')\",OTHERS,False\nmp-14139,\"{'O': 48.0, 'Fe': 20.0, 'Sm': 12.0}\",\"('Fe', 'O', 'Sm')\",OTHERS,False\nmp-23084,\"{'O': 4.0, 'Cl': 2.0, 'Pb': 2.0, 'Bi': 2.0}\",\"('Bi', 'Cl', 'O', 'Pb')\",OTHERS,False\nmp-1225289,\"{'Dy': 2.0, 'Te': 1.0, 'S': 2.0}\",\"('Dy', 'S', 'Te')\",OTHERS,False\nmp-559355,\"{'Hg': 6.0, 'As': 2.0, 'S': 8.0, 'Cl': 2.0}\",\"('As', 'Cl', 'Hg', 'S')\",OTHERS,False\nmp-573514,\"{'Cs': 8.0, 'Sb': 8.0}\",\"('Cs', 'Sb')\",OTHERS,False\nmp-640447,\"{'Ce': 10.0, 'Ni': 2.0, 'Pb': 6.0}\",\"('Ce', 'Ni', 'Pb')\",OTHERS,False\nmp-771054,\"{'V': 12.0, 'P': 8.0, 'O': 32.0}\",\"('O', 'P', 'V')\",OTHERS,False\nmp-540287,\"{'Li': 4.0, 'Cr': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-757008,\"{'Mg': 1.0, 'Fe': 10.0, 'O': 16.0}\",\"('Fe', 'Mg', 'O')\",OTHERS,False\nmvc-4454,\"{'Ti': 4.0, 'Al': 2.0, 'O': 8.0}\",\"('Al', 'O', 'Ti')\",OTHERS,False\nmp-1209091,\"{'Rb': 2.0, 'Tb': 6.0, 'F': 20.0}\",\"('F', 'Rb', 'Tb')\",OTHERS,False\nmp-1213177,\"{'Cs': 4.0, 'Tm': 4.0, 'I': 12.0}\",\"('Cs', 'I', 'Tm')\",OTHERS,False\nmp-780199,\"{'Li': 5.0, 'Mn': 6.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1218665,\"{'Sr': 6.0, 'Ta': 8.0, 'Ti': 8.0, 'O': 42.0}\",\"('O', 'Sr', 'Ta', 'Ti')\",OTHERS,False\nmp-4972,\"{'Cu': 2.0, 'In': 1.0, 'Lu': 1.0}\",\"('Cu', 'In', 'Lu')\",OTHERS,False\nmp-1223169,\"{'La': 3.0, 'Y': 1.0, 'Hf': 4.0, 'O': 14.0}\",\"('Hf', 'La', 'O', 'Y')\",OTHERS,False\nmp-1203935,\"{'Fe': 4.0, 'S': 4.0, 'O': 32.0}\",\"('Fe', 'O', 'S')\",OTHERS,False\nmp-1183874,\"{'Ce': 6.0, 'Sc': 2.0}\",\"('Ce', 'Sc')\",OTHERS,False\nmp-223,\"{'O': 6.0, 'Ge': 3.0}\",\"('Ge', 'O')\",OTHERS,False\nmp-755172,\"{'Li': 5.0, 'V': 3.0, 'Fe': 2.0, 'O': 10.0}\",\"('Fe', 'Li', 'O', 'V')\",OTHERS,False\nmp-1194158,\"{'Er': 4.0, 'Mo': 4.0, 'Br': 4.0, 'O': 16.0}\",\"('Br', 'Er', 'Mo', 'O')\",OTHERS,False\nmp-1074738,\"{'Mg': 8.0, 'Si': 4.0}\",\"('Mg', 'Si')\",OTHERS,False\nmvc-1288,\"{'Ca': 4.0, 'V': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Ca', 'O', 'P', 'V')\",OTHERS,False\nmp-1076570,\"{'Sr': 7.0, 'Ca': 1.0, 'Ti': 7.0, 'Mn': 1.0, 'O': 24.0}\",\"('Ca', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1186604,\"{'Pm': 1.0, 'Lu': 1.0, 'Al': 2.0}\",\"('Al', 'Lu', 'Pm')\",OTHERS,False\nmp-1013705,\"{'Sr': 3.0, 'Bi': 1.0, 'As': 1.0}\",\"('As', 'Bi', 'Sr')\",OTHERS,False\nmp-866079,\"{'Mg': 1.0, 'Sc': 2.0, 'Ru': 1.0}\",\"('Mg', 'Ru', 'Sc')\",OTHERS,False\nmp-1190646,\"{'K': 4.0, 'Cu': 2.0, 'Te': 2.0, 'O': 14.0}\",\"('Cu', 'K', 'O', 'Te')\",OTHERS,False\nmp-1224855,\"{'Fe': 1.0, 'O': 2.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-1198448,\"{'Na': 4.0, 'Al': 12.0, 'Si': 12.0, 'H': 8.0, 'O': 48.0}\",\"('Al', 'H', 'Na', 'O', 'Si')\",OTHERS,False\nmp-30815,\"{'Al': 3.0, 'Pd': 2.0, 'La': 1.0}\",\"('Al', 'La', 'Pd')\",OTHERS,False\nmp-1106110,\"{'Eu': 8.0, 'S': 12.0}\",\"('Eu', 'S')\",OTHERS,False\nmp-862805,\"{'Pr': 1.0, 'Sn': 1.0, 'Au': 2.0}\",\"('Au', 'Pr', 'Sn')\",OTHERS,False\nmp-1079890,\"{'Al': 4.0, 'Cu': 2.0, 'Ir': 2.0}\",\"('Al', 'Cu', 'Ir')\",OTHERS,False\nmp-1214638,\"{'Ba': 6.0, 'Fe': 2.0, 'Ru': 4.0, 'O': 18.0}\",\"('Ba', 'Fe', 'O', 'Ru')\",OTHERS,False\nmp-849734,\"{'Li': 2.0, 'V': 2.0, 'F': 8.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1183973,\"{'Ga': 3.0, 'Si': 1.0}\",\"('Ga', 'Si')\",OTHERS,False\nmp-1208086,\"{'Tm': 3.0, 'P': 6.0, 'Pd': 20.0}\",\"('P', 'Pd', 'Tm')\",OTHERS,False\nmp-561224,\"{'Te': 4.0, 'O': 8.0}\",\"('O', 'Te')\",OTHERS,False\nmp-3346,\"{'Zr': 2.0, 'Sb': 2.0, 'Ho': 2.0}\",\"('Ho', 'Sb', 'Zr')\",OTHERS,False\nmp-23918,\"{'H': 8.0, 'Na': 2.0, 'Ga': 2.0}\",\"('Ga', 'H', 'Na')\",OTHERS,False\nmp-1093912,\"{'Ca': 1.0, 'Hg': 2.0, 'Bi': 1.0}\",\"('Bi', 'Ca', 'Hg')\",OTHERS,False\nmp-763659,\"{'Li': 3.0, 'V': 2.0, 'Fe': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'V')\",OTHERS,False\nmp-1220867,\"{'Na': 2.0, 'Tl': 2.0, 'O': 2.0}\",\"('Na', 'O', 'Tl')\",OTHERS,False\nmp-24034,\"{'H': 12.0, 'Al': 2.0, 'K': 6.0}\",\"('Al', 'H', 'K')\",OTHERS,False\nmp-977324,\"{'Ga': 3.0, 'Ni': 20.0, 'B': 6.0}\",\"('B', 'Ga', 'Ni')\",OTHERS,False\nmp-1176897,\"{'Li': 14.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1181173,\"{'K': 16.0, 'Ag': 8.0, 'Sn': 12.0, 'S': 36.0, 'O': 8.0}\",\"('Ag', 'K', 'O', 'S', 'Sn')\",OTHERS,False\nmp-555885,\"{'Sr': 2.0, 'V': 8.0, 'Ag': 4.0, 'O': 24.0}\",\"('Ag', 'O', 'Sr', 'V')\",OTHERS,False\nmp-1197960,\"{'Bi': 24.0, 'S': 24.0, 'O': 108.0}\",\"('Bi', 'O', 'S')\",OTHERS,False\nmp-1025917,\"{'Mo': 1.0, 'W': 2.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-2562,\"{'Mn': 2.0, 'S': 2.0}\",\"('Mn', 'S')\",OTHERS,False\nmp-1216361,\"{'V': 4.0, 'P': 8.0, 'Pb': 4.0, 'O': 32.0}\",\"('O', 'P', 'Pb', 'V')\",OTHERS,False\nmp-1220506,\"{'Nd': 2.0, 'Fe': 15.0, 'Si': 2.0, 'H': 2.0}\",\"('Fe', 'H', 'Nd', 'Si')\",OTHERS,False\nmvc-14571,\"{'Ti': 2.0, 'Zn': 4.0, 'Sb': 2.0, 'O': 12.0}\",\"('O', 'Sb', 'Ti', 'Zn')\",OTHERS,False\nmp-1111985,\"{'K': 2.0, 'In': 1.0, 'Ag': 1.0, 'Cl': 6.0}\",\"('Ag', 'Cl', 'In', 'K')\",OTHERS,False\nmp-6809,\"{'O': 10.0, 'Si': 2.0, 'Ca': 2.0, 'Sn': 2.0}\",\"('Ca', 'O', 'Si', 'Sn')\",OTHERS,False\nmp-1018806,\"{'Mo': 2.0, 'Se': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Se')\",OTHERS,False\nmp-21370,\"{'O': 6.0, 'Sb': 1.0, 'Ba': 2.0, 'Eu': 1.0}\",\"('Ba', 'Eu', 'O', 'Sb')\",OTHERS,False\nmp-9770,\"{'S': 24.0, 'Ge': 4.0, 'Ag': 32.0}\",\"('Ag', 'Ge', 'S')\",OTHERS,False\nmvc-8878,\"{'Mg': 2.0, 'Ti': 2.0, 'Cu': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Cu', 'Mg', 'O', 'P', 'Ti')\",OTHERS,False\nmp-7310,\"{'F': 12.0, 'Zr': 2.0, 'Pb': 2.0}\",\"('F', 'Pb', 'Zr')\",OTHERS,False\nmp-1016875,\"{'Cd': 1.0, 'Rh': 1.0, 'O': 3.0}\",\"('Cd', 'O', 'Rh')\",OTHERS,False\nmp-1186973,\"{'Sc': 1.0, 'Ag': 3.0}\",\"('Ag', 'Sc')\",OTHERS,False\nmp-862677,\"{'Li': 1.0, 'Ho': 1.0, 'Tl': 2.0}\",\"('Ho', 'Li', 'Tl')\",OTHERS,False\nmp-1224110,\"{'Ho': 6.0, 'Mn': 1.0, 'Ge': 2.0, 'S': 14.0}\",\"('Ge', 'Ho', 'Mn', 'S')\",OTHERS,False\nmp-850999,\"{'Na': 4.0, 'Cr': 16.0, 'O': 48.0}\",\"('Cr', 'Na', 'O')\",OTHERS,False\nmp-1245407,\"{'Y': 6.0, 'Ge': 12.0, 'N': 22.0}\",\"('Ge', 'N', 'Y')\",OTHERS,False\nmp-11869,\"{'Pd': 1.0, 'Sn': 1.0, 'Hf': 1.0}\",\"('Hf', 'Pd', 'Sn')\",OTHERS,False\nmp-704988,\"{'Ni': 4.0, 'P': 10.0, 'O': 30.0}\",\"('Ni', 'O', 'P')\",OTHERS,False\nmp-1105787,\"{'Pb': 8.0, 'O': 4.0, 'F': 8.0}\",\"('F', 'O', 'Pb')\",OTHERS,False\nmp-570017,\"{'Mg': 20.0, 'Au': 60.0}\",\"('Au', 'Mg')\",OTHERS,False\nmp-30474,\"{'Ca': 22.0, 'Ga': 14.0}\",\"('Ca', 'Ga')\",OTHERS,False\nmp-4198,\"{'O': 8.0, 'P': 2.0, 'Ag': 6.0}\",\"('Ag', 'O', 'P')\",OTHERS,False\nmvc-321,\"{'Mg': 2.0, 'Ti': 8.0, 'O': 12.0}\",\"('Mg', 'O', 'Ti')\",OTHERS,False\nmvc-12619,\"{'Mg': 4.0, 'Co': 4.0, 'O': 8.0}\",\"('Co', 'Mg', 'O')\",OTHERS,False\nmp-1104560,\"{'Dy': 4.0, 'Cd': 2.0, 'Te': 8.0}\",\"('Cd', 'Dy', 'Te')\",OTHERS,False\nmp-1223315,\"{'K': 1.0, 'Y': 1.0, 'Nb': 6.0, 'Cl': 18.0}\",\"('Cl', 'K', 'Nb', 'Y')\",OTHERS,False\nmp-685779,\"{'Sn': 5.0, 'Mo': 36.0, 'S': 48.0}\",\"('Mo', 'S', 'Sn')\",OTHERS,False\nmp-12894,\"{'O': 2.0, 'S': 1.0, 'Y': 2.0}\",\"('O', 'S', 'Y')\",OTHERS,False\nmp-764484,\"{'Li': 3.0, 'Mn': 3.0, 'V': 3.0, 'P': 12.0, 'O': 42.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1187398,\"{'Tc': 6.0, 'W': 2.0}\",\"('Tc', 'W')\",OTHERS,False\nmp-1174246,\"{'Li': 7.0, 'Co': 5.0, 'O': 12.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1102672,\"{'Sr': 8.0, 'Al': 4.0}\",\"('Al', 'Sr')\",OTHERS,False\nmp-1218475,\"{'Sr': 4.0, 'Mg': 1.0, 'Ti': 1.0, 'Fe': 2.0, 'As': 2.0, 'O': 6.0}\",\"('As', 'Fe', 'Mg', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1101621,\"{'As': 8.0, 'Pd': 10.0, 'Pb': 2.0}\",\"('As', 'Pb', 'Pd')\",OTHERS,False\nmp-775225,\"{'Nb': 3.0, 'Ni': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Nb', 'Ni', 'O', 'P')\",OTHERS,False\nmp-361,\"{'Cu': 4.0, 'O': 2.0}\",\"('Cu', 'O')\",OTHERS,False\nmp-755752,\"{'Rb': 8.0, 'Be': 8.0, 'O': 12.0}\",\"('Be', 'O', 'Rb')\",OTHERS,False\nmp-20627,\"{'Co': 1.0, 'Ga': 5.0, 'Yb': 1.0}\",\"('Co', 'Ga', 'Yb')\",OTHERS,False\nmp-27346,\"{'Al': 8.0, 'Cl': 32.0, 'Hg': 12.0}\",\"('Al', 'Cl', 'Hg')\",OTHERS,False\nmp-24816,\"{'H': 4.0, 'O': 10.0, 'K': 2.0, 'Cr': 2.0, 'Cd': 1.0}\",\"('Cd', 'Cr', 'H', 'K', 'O')\",OTHERS,False\nmp-1202708,\"{'Yb': 8.0, 'Ni': 2.0, 'B': 26.0}\",\"('B', 'Ni', 'Yb')\",OTHERS,False\nmp-1197925,\"{'Sr': 8.0, 'Ga': 4.0, 'P': 8.0, 'O': 32.0, 'F': 8.0}\",\"('F', 'Ga', 'O', 'P', 'Sr')\",OTHERS,False\nmp-1194266,\"{'K': 12.0, 'Sb': 4.0, 'S': 12.0}\",\"('K', 'S', 'Sb')\",OTHERS,False\nmp-8911,\"{'S': 2.0, 'Cu': 2.0, 'Ag': 2.0}\",\"('Ag', 'Cu', 'S')\",OTHERS,False\nmp-568790,\"{'Ca': 56.0, 'Ga': 4.0, 'As': 44.0}\",\"('As', 'Ca', 'Ga')\",OTHERS,False\nmp-4434,\"{'O': 12.0, 'Al': 4.0, 'Tb': 4.0}\",\"('Al', 'O', 'Tb')\",OTHERS,False\nmp-1039108,\"{'Ca': 4.0, 'Mg': 8.0}\",\"('Ca', 'Mg')\",OTHERS,False\nmp-1181373,\"{'H': 12.0, 'N': 8.0, 'O': 18.0}\",\"('H', 'N', 'O')\",OTHERS,False\nmp-1189560,\"{'Y': 4.0, 'Si': 12.0}\",\"('Si', 'Y')\",OTHERS,False\nmp-1175317,\"{'Li': 7.0, 'Mn': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmvc-10699,\"{'Ca': 1.0, 'Sb': 4.0, 'O': 8.0}\",\"('Ca', 'O', 'Sb')\",OTHERS,False\nmp-756318,\"{'Al': 4.0, 'Co': 2.0, 'Cl': 16.0}\",\"('Al', 'Cl', 'Co')\",OTHERS,False\nmp-767521,\"{'Na': 4.0, 'In': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'In', 'Na', 'O', 'P')\",OTHERS,False\nmp-861884,\"{'Ac': 1.0, 'Ga': 1.0, 'Te': 2.0}\",\"('Ac', 'Ga', 'Te')\",OTHERS,False\nmp-1077942,\"{'Rb': 2.0, 'Te': 1.0, 'Se': 4.0}\",\"('Rb', 'Se', 'Te')\",OTHERS,False\nmp-759877,\"{'Li': 4.0, 'Cu': 1.0, 'F': 7.0}\",\"('Cu', 'F', 'Li')\",OTHERS,False\nmp-1214815,\"{'Co': 2.0, 'N': 8.0, 'F': 24.0}\",\"('Co', 'F', 'N')\",OTHERS,False\nmp-1211272,\"{'La': 6.0, 'Nb': 2.0, 'Cl': 6.0, 'O': 12.0}\",\"('Cl', 'La', 'Nb', 'O')\",OTHERS,False\nmp-1185724,\"{'Mg': 16.0, 'Mn': 1.0, 'Al': 12.0}\",\"('Al', 'Mg', 'Mn')\",OTHERS,False\nmp-6265,\"{'O': 6.0, 'Sb': 1.0, 'Ba': 2.0, 'Tb': 1.0}\",\"('Ba', 'O', 'Sb', 'Tb')\",OTHERS,False\nmp-22749,\"{'C': 4.0, 'Mn': 10.0}\",\"('C', 'Mn')\",OTHERS,False\nmp-1098218,\"{'Mg': 30.0, 'Cu': 1.0, 'Si': 1.0, 'O': 32.0}\",\"('Cu', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1216181,\"{'Y': 2.0, 'B': 6.0, 'Rh': 9.0}\",\"('B', 'Rh', 'Y')\",OTHERS,False\nmp-1207848,\"{'Y': 12.0, 'Ge': 8.0, 'Rh': 8.0}\",\"('Ge', 'Rh', 'Y')\",OTHERS,False\nmp-549490,\"{'O': 5.0, 'Nb': 4.0, 'K': 1.0, 'F': 1.0}\",\"('F', 'K', 'Nb', 'O')\",OTHERS,False\nmp-1184572,\"{'Hf': 1.0, 'Mg': 1.0, 'Pt': 2.0}\",\"('Hf', 'Mg', 'Pt')\",OTHERS,False\nmp-761175,\"{'Na': 2.0, 'Ni': 8.0, 'H': 18.0, 'C': 6.0, 'O': 30.0}\",\"('C', 'H', 'Na', 'Ni', 'O')\",OTHERS,False\nmp-567849,\"{'Er': 4.0, 'Al': 6.0, 'Co': 2.0}\",\"('Al', 'Co', 'Er')\",OTHERS,False\nmp-1038570,\"{'Mg': 30.0, 'Cr': 1.0, 'Cd': 1.0, 'O': 32.0}\",\"('Cd', 'Cr', 'Mg', 'O')\",OTHERS,False\nmp-567787,\"{'Li': 1.0, 'In': 1.0, 'Ag': 2.0}\",\"('Ag', 'In', 'Li')\",OTHERS,False\nmp-15919,\"{'Be': 12.0, 'O': 48.0, 'P': 12.0, 'Ag': 12.0}\",\"('Ag', 'Be', 'O', 'P')\",OTHERS,False\nmp-1208371,\"{'Tl': 4.0, 'N': 8.0, 'Cl': 20.0, 'O': 4.0}\",\"('Cl', 'N', 'O', 'Tl')\",OTHERS,False\nmp-631449,\"{'Li': 1.0, 'Ta': 1.0, 'Be': 1.0}\",\"('Be', 'Li', 'Ta')\",OTHERS,False\nmp-561848,\"{'C': 24.0, 'O': 16.0}\",\"('C', 'O')\",OTHERS,False\nmp-21278,\"{'In': 4.0, 'Ce': 2.0, 'Ir': 2.0}\",\"('Ce', 'In', 'Ir')\",OTHERS,False\nmp-1208045,\"{'Tl': 1.0, 'Fe': 1.0, 'S': 2.0, 'O': 8.0}\",\"('Fe', 'O', 'S', 'Tl')\",OTHERS,False\nmp-1079141,\"{'Pr': 2.0, 'Ge': 4.0, 'Ir': 4.0}\",\"('Ge', 'Ir', 'Pr')\",OTHERS,False\nmp-754151,\"{'V': 2.0, 'O': 2.0, 'F': 2.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-979073,\"{'Tm': 1.0, 'Mg': 2.0, 'Sc': 1.0}\",\"('Mg', 'Sc', 'Tm')\",OTHERS,False\nmp-29505,\"{'O': 12.0, 'Cs': 12.0, 'Bi': 4.0}\",\"('Bi', 'Cs', 'O')\",OTHERS,False\nmp-1175732,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmvc-1912,\"{'Y': 1.0, 'Cu': 3.0, 'Bi': 4.0, 'O': 12.0}\",\"('Bi', 'Cu', 'O', 'Y')\",OTHERS,False\nmp-27552,\"{'I': 6.0, 'Tl': 2.0, 'Pb': 2.0}\",\"('I', 'Pb', 'Tl')\",OTHERS,False\nmp-672254,\"{'Ca': 3.0, 'Pd': 3.0, 'Pb': 3.0}\",\"('Ca', 'Pb', 'Pd')\",OTHERS,False\nmp-1218038,\"{'Ta': 3.0, 'V': 7.0, 'Si': 6.0}\",\"('Si', 'Ta', 'V')\",OTHERS,False\nmp-778109,\"{'Li': 12.0, 'Nb': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'Nb', 'O', 'P')\",OTHERS,False\nmp-1019087,\"{'Ca': 2.0, 'Sn': 2.0, 'Hg': 2.0}\",\"('Ca', 'Hg', 'Sn')\",OTHERS,False\nmp-1246920,\"{'Pb': 2.0, 'C': 16.0, 'N': 12.0}\",\"('C', 'N', 'Pb')\",OTHERS,False\nmp-1212980,\"{'Eu': 6.0, 'In': 6.0, 'O': 18.0}\",\"('Eu', 'In', 'O')\",OTHERS,False\nmp-772294,\"{'Na': 10.0, 'Li': 2.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'Na', 'O', 'P')\",OTHERS,False\nmp-1074753,\"{'Mg': 8.0, 'Si': 4.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1247069,\"{'Cd': 6.0, 'Ga': 4.0, 'N': 8.0}\",\"('Cd', 'Ga', 'N')\",OTHERS,False\nmp-1112710,\"{'Cs': 2.0, 'K': 1.0, 'Sc': 1.0, 'I': 6.0}\",\"('Cs', 'I', 'K', 'Sc')\",OTHERS,False\nmp-862720,\"{'Sr': 2.0, 'Cd': 1.0, 'In': 1.0}\",\"('Cd', 'In', 'Sr')\",OTHERS,False\nmp-1095596,\"{'Ca': 2.0, 'B': 1.0, 'As': 1.0, 'O': 8.0}\",\"('As', 'B', 'Ca', 'O')\",OTHERS,False\nmp-2333,\"{'Pd': 3.0, 'Nd': 1.0}\",\"('Nd', 'Pd')\",OTHERS,False\nmvc-2075,\"{'Mg': 2.0, 'Sn': 9.0, 'O': 13.0}\",\"('Mg', 'O', 'Sn')\",OTHERS,False\nmp-1199234,\"{'Tl': 4.0, 'Mo': 30.0, 'Se': 38.0}\",\"('Mo', 'Se', 'Tl')\",OTHERS,False\nmp-1214395,\"{'Ba': 8.0, 'In': 8.0, 'F': 40.0}\",\"('Ba', 'F', 'In')\",OTHERS,False\nmp-1203378,\"{'Cs': 14.0, 'In': 6.0, 'As': 12.0}\",\"('As', 'Cs', 'In')\",OTHERS,False\nmp-1186671,\"{'Pm': 1.0, 'Y': 3.0}\",\"('Pm', 'Y')\",OTHERS,False\nmp-1197938,\"{'Co': 6.0, 'B': 14.0, 'O': 26.0, 'F': 2.0}\",\"('B', 'Co', 'F', 'O')\",OTHERS,False\nmp-1173940,\"{'Li': 3.0, 'Mn': 1.0, 'Co': 2.0, 'O': 6.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1028535,\"{'Te': 2.0, 'Mo': 1.0, 'W': 3.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-973626,\"{'Hg': 6.0, 'Au': 2.0}\",\"('Au', 'Hg')\",OTHERS,False\nmp-758112,\"{'Co': 2.0, 'Ni': 3.0, 'Sb': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Co', 'Ni', 'O', 'P', 'Sb')\",OTHERS,False\nmp-722865,\"{'H': 32.0, 'Se': 8.0, 'N': 8.0, 'O': 20.0}\",\"('H', 'N', 'O', 'Se')\",OTHERS,False\nmp-1222794,\"{'La': 1.0, 'Ga': 3.0, 'Pt': 1.0}\",\"('Ga', 'La', 'Pt')\",OTHERS,False\nmp-567348,\"{'Tm': 1.0, 'In': 1.0, 'Pd': 2.0}\",\"('In', 'Pd', 'Tm')\",OTHERS,False\nmp-1202721,\"{'Ag': 4.0, 'H': 24.0, 'C': 8.0, 'N': 20.0, 'O': 16.0}\",\"('Ag', 'C', 'H', 'N', 'O')\",OTHERS,False\nmp-6562,\"{'O': 4.0, 'Cu': 1.0, 'Ba': 2.0, 'Hg': 1.0}\",\"('Ba', 'Cu', 'Hg', 'O')\",OTHERS,False\nmp-669389,\"{'Sr': 6.0, 'In': 2.0, 'Rh': 2.0, 'O': 12.0}\",\"('In', 'O', 'Rh', 'Sr')\",OTHERS,False\nmp-1095566,\"{'La': 2.0, 'Co': 8.0, 'B': 2.0}\",\"('B', 'Co', 'La')\",OTHERS,False\nmp-571514,\"{'Cd': 8.0, 'I': 16.0}\",\"('Cd', 'I')\",OTHERS,False\nmp-1213682,\"{'Cs': 1.0, 'Er': 1.0, 'Mo': 2.0, 'O': 8.0}\",\"('Cs', 'Er', 'Mo', 'O')\",OTHERS,False\nmp-973958,\"{'K': 1.0, 'Ru': 1.0, 'O': 3.0}\",\"('K', 'O', 'Ru')\",OTHERS,False\nmp-773087,\"{'Li': 2.0, 'Mg': 1.0, 'Cu': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Cu', 'Li', 'Mg', 'O', 'Si')\",OTHERS,False\nmvc-16726,\"{'Al': 2.0, 'Co': 4.0, 'S': 8.0}\",\"('Al', 'Co', 'S')\",OTHERS,False\nmp-1228149,\"{'Ba': 3.0, 'Sr': 9.0, 'Al': 4.0, 'O': 16.0, 'F': 4.0}\",\"('Al', 'Ba', 'F', 'O', 'Sr')\",OTHERS,False\nmp-1228037,\"{'Ba': 1.0, 'Ca': 1.0, 'Dy': 2.0, 'F': 10.0}\",\"('Ba', 'Ca', 'Dy', 'F')\",OTHERS,False\nmp-1195436,\"{'Cd': 12.0, 'B': 4.0, 'P': 4.0, 'O': 28.0}\",\"('B', 'Cd', 'O', 'P')\",OTHERS,False\nmp-389,\"{'Si': 4.0, 'Pd': 4.0}\",\"('Pd', 'Si')\",OTHERS,False\nmp-1200220,\"{'Al': 24.0, 'Ir': 8.0}\",\"('Al', 'Ir')\",OTHERS,False\nmp-1073599,\"{'Mg': 8.0, 'Si': 16.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-862360,\"{'Sc': 2.0, 'Ni': 1.0, 'Ir': 1.0}\",\"('Ir', 'Ni', 'Sc')\",OTHERS,False\nmp-569435,\"{'K': 4.0, 'Bi': 4.0, 'P': 8.0, 'Se': 24.0}\",\"('Bi', 'K', 'P', 'Se')\",OTHERS,False\nmp-1113276,\"{'Rb': 2.0, 'Bi': 1.0, 'Au': 1.0, 'F': 6.0}\",\"('Au', 'Bi', 'F', 'Rb')\",OTHERS,False\nmp-1029750,\"{'Sr': 6.0, 'Ru': 2.0, 'N': 6.0}\",\"('N', 'Ru', 'Sr')\",OTHERS,False\nmp-1173734,\"{'Na': 1.0, 'Ca': 3.0, 'Fe': 4.0, 'Si': 8.0, 'O': 24.0}\",\"('Ca', 'Fe', 'Na', 'O', 'Si')\",OTHERS,False\nmp-558475,\"{'K': 16.0, 'Nb': 8.0, 'S': 40.0, 'O': 4.0}\",\"('K', 'Nb', 'O', 'S')\",OTHERS,False\nmp-11366,\"{'Cu': 2.0, 'Zn': 1.0, 'Zr': 1.0}\",\"('Cu', 'Zn', 'Zr')\",OTHERS,False\nmp-756488,\"{'Co': 4.0, 'O': 8.0}\",\"('Co', 'O')\",OTHERS,False\nmp-22392,\"{'F': 2.0, 'Cu': 2.0, 'Se': 2.0, 'Sm': 2.0}\",\"('Cu', 'F', 'Se', 'Sm')\",OTHERS,False\nmp-1201992,\"{'La': 2.0, 'V': 2.0, 'H': 4.0, 'I': 8.0, 'O': 30.0}\",\"('H', 'I', 'La', 'O', 'V')\",OTHERS,False\nmp-1215891,\"{'Y': 1.0, 'Th': 1.0}\",\"('Th', 'Y')\",OTHERS,False\nmp-774859,\"{'Li': 4.0, 'Nb': 4.0, 'P': 4.0, 'O': 20.0}\",\"('Li', 'Nb', 'O', 'P')\",OTHERS,False\nmp-690667,\"{'Ag': 7.0, 'N': 1.0, 'O': 8.0}\",\"('Ag', 'N', 'O')\",OTHERS,False\nmp-867293,\"{'Li': 1.0, 'Co': 2.0, 'Si': 1.0}\",\"('Co', 'Li', 'Si')\",OTHERS,False\nmp-690540,\"{'V': 2.0, 'Bi': 4.0, 'O': 11.0}\",\"('Bi', 'O', 'V')\",OTHERS,False\nmp-654900,\"{'Cu': 4.0, 'H': 36.0, 'C': 16.0, 'N': 4.0, 'O': 24.0}\",\"('C', 'Cu', 'H', 'N', 'O')\",OTHERS,False\nmp-540631,\"{'K': 2.0, 'Ta': 2.0, 'Ge': 6.0, 'O': 18.0}\",\"('Ge', 'K', 'O', 'Ta')\",OTHERS,False\nmp-1077413,\"{'Na': 2.0, 'P': 2.0, 'O': 2.0}\",\"('Na', 'O', 'P')\",OTHERS,False\nmp-21437,\"{'O': 12.0, 'Fe': 4.0, 'Te': 2.0}\",\"('Fe', 'O', 'Te')\",OTHERS,False\nmp-1219732,\"{'Pt': 4.0, 'Se': 1.0, 'S': 3.0}\",\"('Pt', 'S', 'Se')\",OTHERS,False\nmp-582119,\"{'Tb': 16.0, 'In': 4.0, 'Rh': 4.0}\",\"('In', 'Rh', 'Tb')\",OTHERS,False\nmp-1219236,\"{'Re': 6.0, 'Br': 16.0, 'Cl': 2.0}\",\"('Br', 'Cl', 'Re')\",OTHERS,False\nmp-22428,\"{'Sr': 4.0, 'Ce': 4.0, 'O': 12.0}\",\"('Ce', 'O', 'Sr')\",OTHERS,False\nmp-867873,\"{'Li': 1.0, 'Tm': 2.0, 'Al': 1.0}\",\"('Al', 'Li', 'Tm')\",OTHERS,False\nmp-21827,\"{'Cu': 8.0, 'Se': 32.0, 'In': 18.0}\",\"('Cu', 'In', 'Se')\",OTHERS,False\nmp-1027137,\"{'Te': 2.0, 'Mo': 3.0, 'W': 1.0, 'Se': 4.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-675325,\"{'Al': 1.0, 'Ag': 9.0, 'S': 6.0}\",\"('Ag', 'Al', 'S')\",OTHERS,False\nmp-972119,\"{'Sr': 1.0, 'Ca': 1.0, 'Tl': 2.0}\",\"('Ca', 'Sr', 'Tl')\",OTHERS,False\nmp-1174250,\"{'Li': 8.0, 'Co': 6.0, 'O': 14.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-557509,\"{'Mn': 4.0, 'H': 44.0, 'C': 20.0, 'N': 4.0, 'O': 24.0}\",\"('C', 'H', 'Mn', 'N', 'O')\",OTHERS,False\nmp-626791,\"{'V': 4.0, 'H': 4.0, 'O': 8.0}\",\"('H', 'O', 'V')\",OTHERS,False\nmp-1232167,\"{'Mg': 8.0, 'Sc': 16.0, 'Se': 32.0}\",\"('Mg', 'Sc', 'Se')\",OTHERS,False\nmp-1098705,\"{'Ce': 4.0, 'Se': 8.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-1184689,\"{'Ho': 2.0, 'Ni': 1.0, 'Ru': 1.0}\",\"('Ho', 'Ni', 'Ru')\",OTHERS,False\nmp-1208379,\"{'Tb': 4.0, 'W': 4.0, 'O': 20.0}\",\"('O', 'Tb', 'W')\",OTHERS,False\nmp-778265,\"{'Li': 4.0, 'Mn': 3.0, 'Fe': 1.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-27017,\"{'Li': 8.0, 'O': 32.0, 'P': 8.0, 'Sn': 8.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1184920,\"{'Ho': 2.0, 'Os': 6.0}\",\"('Ho', 'Os')\",OTHERS,False\nmp-18854,\"{'O': 4.0, 'Cr': 1.0, 'Sr': 2.0}\",\"('Cr', 'O', 'Sr')\",OTHERS,False\nmp-768869,\"{'Li': 8.0, 'V': 4.0, 'B': 4.0, 'O': 16.0}\",\"('B', 'Li', 'O', 'V')\",OTHERS,False\nmvc-5152,\"{'Mg': 6.0, 'Cu': 12.0, 'O': 24.0}\",\"('Cu', 'Mg', 'O')\",OTHERS,False\nmp-570419,\"{'Zr': 6.0, 'Al': 6.0, 'C': 10.0}\",\"('Al', 'C', 'Zr')\",OTHERS,False\nmp-639511,\"{'Si': 32.0, 'O': 64.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1213744,\"{'Cr': 2.0, 'Cu': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Cr', 'Cu', 'O', 'W')\",OTHERS,False\nmp-770065,\"{'Gd': 8.0, 'Ti': 4.0, 'O': 20.0}\",\"('Gd', 'O', 'Ti')\",OTHERS,False\nmp-1227586,\"{'Ca': 4.0, 'Fe': 4.0, 'O': 10.0}\",\"('Ca', 'Fe', 'O')\",OTHERS,False\nmp-1073454,\"{'Mg': 8.0, 'Si': 16.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1018683,\"{'Dy': 2.0, 'Se': 4.0}\",\"('Dy', 'Se')\",OTHERS,False\nmp-772993,\"{'Li': 2.0, 'Ti': 7.0, 'Nb': 6.0, 'O': 30.0}\",\"('Li', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-1246702,\"{'Ca': 10.0, 'Co': 4.0, 'N': 12.0}\",\"('Ca', 'Co', 'N')\",OTHERS,False\nmp-1215756,\"{'Zr': 6.0, 'Bi': 2.0, 'F': 30.0}\",\"('Bi', 'F', 'Zr')\",OTHERS,False\nmp-1198330,\"{'Cu': 1.0, 'C': 32.0, 'N': 8.0, 'F': 16.0}\",\"('C', 'Cu', 'F', 'N')\",OTHERS,False\nmp-1186050,\"{'Na': 3.0, 'Hg': 1.0}\",\"('Hg', 'Na')\",OTHERS,False\nmp-571638,\"{'Rb': 4.0, 'Cu': 2.0, 'Br': 4.0, 'Cl': 4.0}\",\"('Br', 'Cl', 'Cu', 'Rb')\",OTHERS,False\nmp-13361,\"{'O': 8.0, 'P': 2.0, 'Cu': 1.0, 'Cd': 2.0}\",\"('Cd', 'Cu', 'O', 'P')\",OTHERS,False\nmp-1224834,\"{'Ga': 1.0, 'Si': 1.0, 'Ni': 6.0}\",\"('Ga', 'Ni', 'Si')\",OTHERS,False\nmp-861982,\"{'Pa': 1.0, 'Ga': 3.0}\",\"('Ga', 'Pa')\",OTHERS,False\nmp-29987,\"{'Al': 4.0, 'I': 4.0, 'La': 6.0}\",\"('Al', 'I', 'La')\",OTHERS,False\nmp-695492,\"{'Ca': 2.0, 'Fe': 3.0, 'Sb': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Ca', 'Fe', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1174526,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1193030,\"{'Ce': 8.0, 'Co': 2.0, 'S': 14.0}\",\"('Ce', 'Co', 'S')\",OTHERS,False\nmp-677743,\"{'Na': 12.0, 'Ca': 8.0, 'Ta': 12.0, 'Ti': 8.0, 'O': 60.0}\",\"('Ca', 'Na', 'O', 'Ta', 'Ti')\",OTHERS,False\nmvc-10720,\"{'Mg': 1.0, 'Bi': 4.0, 'O': 8.0}\",\"('Bi', 'Mg', 'O')\",OTHERS,False\nmvc-10393,\"{'Ho': 2.0, 'W': 4.0, 'O': 12.0}\",\"('Ho', 'O', 'W')\",OTHERS,False\nmp-1213571,\"{'Cs': 4.0, 'Np': 4.0, 'Mo': 4.0, 'O': 24.0}\",\"('Cs', 'Mo', 'Np', 'O')\",OTHERS,False\nmp-1111173,\"{'K': 3.0, 'In': 1.0, 'Cl': 6.0}\",\"('Cl', 'In', 'K')\",OTHERS,False\nmp-1193370,\"{'Nb': 8.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cu', 'Nb', 'S')\",OTHERS,False\nmp-1174287,\"{'Li': 8.0, 'Mn': 6.0, 'O': 14.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1222993,\"{'La': 1.0, 'Eu': 1.0, 'Pd': 6.0}\",\"('Eu', 'La', 'Pd')\",OTHERS,False\nmp-768940,\"{'Cr': 8.0, 'S': 12.0, 'O': 48.0}\",\"('Cr', 'O', 'S')\",OTHERS,False\nmp-1245461,\"{'Cd': 8.0, 'Ru': 2.0, 'N': 8.0}\",\"('Cd', 'N', 'Ru')\",OTHERS,False\nmp-758200,\"{'Li': 8.0, 'Ni': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-772973,\"{'Li': 4.0, 'P': 20.0, 'W': 4.0, 'O': 60.0}\",\"('Li', 'O', 'P', 'W')\",OTHERS,False\nmp-780099,\"{'Fe': 8.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-723120,\"{'Ba': 2.0, 'H': 12.0, 'C': 8.0, 'O': 14.0}\",\"('Ba', 'C', 'H', 'O')\",OTHERS,False\nmp-20512,\"{'Fe': 2.0, 'Sn': 2.0}\",\"('Fe', 'Sn')\",OTHERS,False\nmp-1014339,\"{'Cr': 12.0, 'N': 24.0}\",\"('Cr', 'N')\",OTHERS,False\nmp-1223899,\"{'Ho': 1.0, 'Al': 1.0, 'Ni': 4.0}\",\"('Al', 'Ho', 'Ni')\",OTHERS,False\nmp-1105724,\"{'Ba': 4.0, 'Er': 2.0, 'Ga': 2.0, 'Te': 10.0}\",\"('Ba', 'Er', 'Ga', 'Te')\",OTHERS,False\nmp-1207967,\"{'Y': 12.0, 'Cr': 8.0, 'Ga': 12.0, 'O': 48.0}\",\"('Cr', 'Ga', 'O', 'Y')\",OTHERS,False\nmp-14500,\"{'As': 12.0, 'Sr': 2.0, 'Pt': 8.0}\",\"('As', 'Pt', 'Sr')\",OTHERS,False\nmp-1215907,\"{'Y': 1.0, 'Ag': 1.0, 'Te': 2.0}\",\"('Ag', 'Te', 'Y')\",OTHERS,False\nmp-1209388,\"{'Sc': 8.0, 'In': 4.0, 'Au': 8.0}\",\"('Au', 'In', 'Sc')\",OTHERS,False\nmp-761102,\"{'Na': 3.0, 'Mn': 20.0, 'O': 40.0}\",\"('Mn', 'Na', 'O')\",OTHERS,False\nmp-760078,\"{'Ba': 4.0, 'Ti': 11.0, 'O': 26.0}\",\"('Ba', 'O', 'Ti')\",OTHERS,False\nmp-1211068,\"{'Mn': 2.0, 'P': 4.0, 'O': 20.0}\",\"('Mn', 'O', 'P')\",OTHERS,False\nmp-21272,\"{'Ni': 1.0, 'Sb': 1.0, 'Er': 1.0}\",\"('Er', 'Ni', 'Sb')\",OTHERS,False\nmp-1247291,\"{'Mg': 2.0, 'V': 3.0, 'In': 1.0, 'S': 8.0}\",\"('In', 'Mg', 'S', 'V')\",OTHERS,False\nmp-708135,\"{'Y': 1.0, 'H': 16.0, 'C': 4.0, 'N': 9.0, 'O': 16.0}\",\"('C', 'H', 'N', 'O', 'Y')\",OTHERS,False\nmp-623006,\"{'U': 1.0, 'Ga': 5.0, 'Ir': 1.0}\",\"('Ga', 'Ir', 'U')\",OTHERS,False\nmp-973850,\"{'Ho': 5.0, 'Ga': 15.0}\",\"('Ga', 'Ho')\",OTHERS,False\nmp-1200889,\"{'Ti': 8.0, 'Bi': 8.0, 'O': 28.0}\",\"('Bi', 'O', 'Ti')\",OTHERS,False\nmp-23057,\"{'Li': 2.0, 'Br': 4.0, 'Cs': 2.0}\",\"('Br', 'Cs', 'Li')\",OTHERS,False\nmp-7531,\"{'O': 13.0, 'Al': 6.0, 'Ca': 4.0}\",\"('Al', 'Ca', 'O')\",OTHERS,False\nmp-1196701,\"{'Na': 4.0, 'Al': 4.0, 'Si': 6.0, 'O': 28.0}\",\"('Al', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1093886,\"{'Ta': 2.0, 'Mn': 1.0, 'Ru': 1.0}\",\"('Mn', 'Ru', 'Ta')\",OTHERS,False\nmp-1218927,\"{'Sr': 10.0, 'Cu': 5.0, 'Mo': 1.0, 'W': 4.0, 'O': 30.0}\",\"('Cu', 'Mo', 'O', 'Sr', 'W')\",OTHERS,False\nmp-1102537,\"{'Nb': 4.0, 'V': 4.0, 'P': 4.0}\",\"('Nb', 'P', 'V')\",OTHERS,False\nmp-755111,\"{'Li': 1.0, 'V': 4.0, 'O': 1.0, 'F': 11.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-863971,\"{'K': 2.0, 'Mn': 3.0, 'P': 4.0, 'H': 4.0, 'O': 12.0}\",\"('H', 'K', 'Mn', 'O', 'P')\",OTHERS,False\nmp-541338,\"{'Al': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Al', 'O', 'P')\",OTHERS,False\nmp-759426,\"{'Li': 4.0, 'V': 1.0, 'P': 6.0, 'O': 18.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-864807,\"{'Hf': 1.0, 'Zn': 1.0, 'Ni': 2.0}\",\"('Hf', 'Ni', 'Zn')\",OTHERS,False\nmp-1221286,\"{'Na': 3.0, 'Mn': 2.0, 'B': 1.0, 'O': 6.0}\",\"('B', 'Mn', 'Na', 'O')\",OTHERS,False\nmp-1261478,\"{'Al': 4.0, 'Ni': 12.0, 'O': 24.0}\",\"('Al', 'Ni', 'O')\",OTHERS,False\nmp-1181996,{'C': 2.0},\"('C',)\",OTHERS,False\nmp-1218849,\"{'Sr': 2.0, 'Gd': 1.0, 'Cu': 2.0, 'Ir': 1.0, 'O': 8.0}\",\"('Cu', 'Gd', 'Ir', 'O', 'Sr')\",OTHERS,False\nmp-1174059,\"{'Li': 5.0, 'Mn': 1.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-755159,\"{'Tl': 4.0, 'Ge': 4.0, 'O': 14.0}\",\"('Ge', 'O', 'Tl')\",OTHERS,False\nmp-18819,\"{'O': 7.0, 'P': 2.0, 'Ni': 2.0}\",\"('Ni', 'O', 'P')\",OTHERS,False\nmp-766000,\"{'Li': 1.0, 'V': 1.0, 'Cr': 1.0, 'P': 4.0, 'O': 14.0}\",\"('Cr', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-18987,\"{'Li': 2.0, 'O': 14.0, 'P': 4.0, 'Mo': 2.0}\",\"('Li', 'Mo', 'O', 'P')\",OTHERS,False\nmp-755273,\"{'Li': 4.0, 'Fe': 8.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-643923,\"{'Zr': 8.0, 'Co': 4.0, 'H': 20.0}\",\"('Co', 'H', 'Zr')\",OTHERS,False\nmp-1175059,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmvc-4380,\"{'Ca': 4.0, 'Ta': 2.0, 'Ni': 2.0, 'O': 12.0}\",\"('Ca', 'Ni', 'O', 'Ta')\",OTHERS,False\nmp-1181255,\"{'Li': 16.0, 'P': 16.0, 'O': 68.0}\",\"('Li', 'O', 'P')\",OTHERS,False\nmp-753794,\"{'Hf': 4.0, 'P': 4.0, 'O': 18.0}\",\"('Hf', 'O', 'P')\",OTHERS,False\nmp-559287,\"{'Ho': 4.0, 'Sn': 6.0, 'Pb': 6.0, 'S': 24.0}\",\"('Ho', 'Pb', 'S', 'Sn')\",OTHERS,False\nmp-761140,\"{'Na': 4.0, 'Ti': 7.0, 'O': 16.0}\",\"('Na', 'O', 'Ti')\",OTHERS,False\nmp-622086,\"{'La': 8.0, 'Ge': 4.0, 'S': 20.0}\",\"('Ge', 'La', 'S')\",OTHERS,False\nmvc-5715,\"{'Mg': 4.0, 'Cu': 2.0, 'Ir': 2.0, 'O': 12.0}\",\"('Cu', 'Ir', 'Mg', 'O')\",OTHERS,False\nmp-18084,\"{'O': 20.0, 'Zn': 4.0, 'Ba': 4.0, 'Tb': 8.0}\",\"('Ba', 'O', 'Tb', 'Zn')\",OTHERS,False\nmp-1208803,\"{'Sr': 2.0, 'La': 1.0, 'Cu': 2.0, 'Hg': 1.0, 'O': 6.0}\",\"('Cu', 'Hg', 'La', 'O', 'Sr')\",OTHERS,False\nmp-758428,\"{'Ti': 6.0, 'Nb': 2.0, 'O': 16.0}\",\"('Nb', 'O', 'Ti')\",OTHERS,False\nmp-1101460,\"{'Nb': 4.0, 'Cr': 4.0, 'O': 16.0}\",\"('Cr', 'Nb', 'O')\",OTHERS,False\nmp-1177320,\"{'Li': 8.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-625762,\"{'Al': 8.0, 'H': 24.0, 'O': 24.0}\",\"('Al', 'H', 'O')\",OTHERS,False\nmp-1207411,\"{'Zr': 12.0, 'Ga': 4.0, 'Ni': 2.0, 'H': 20.0}\",\"('Ga', 'H', 'Ni', 'Zr')\",OTHERS,False\nmp-1183475,\"{'Ca': 2.0, 'Br': 2.0}\",\"('Br', 'Ca')\",OTHERS,False\nmp-979751,\"{'Ta': 1.0, 'Ti': 1.0, 'Fe': 2.0}\",\"('Fe', 'Ta', 'Ti')\",OTHERS,False\nmp-1222066,\"{'Mg': 1.0, 'Ti': 4.0, 'Mn': 1.0, 'Zn': 1.0, 'Ni': 1.0, 'O': 12.0}\",\"('Mg', 'Mn', 'Ni', 'O', 'Ti', 'Zn')\",OTHERS,False\nmp-1214618,\"{'Ba': 6.0, 'Cd': 2.0, 'Ir': 4.0, 'O': 18.0}\",\"('Ba', 'Cd', 'Ir', 'O')\",OTHERS,False\nmp-1227456,\"{'Ca': 10.0, 'Ge': 6.0, 'F': 1.0}\",\"('Ca', 'F', 'Ge')\",OTHERS,False\nmp-1246475,\"{'Ga': 4.0, 'Fe': 4.0, 'N': 8.0}\",\"('Fe', 'Ga', 'N')\",OTHERS,False\nmp-20745,{'Pb': 2.0},\"('Pb',)\",OTHERS,False\nmp-1185981,\"{'Mn': 2.0, 'Ir': 1.0, 'Rh': 1.0}\",\"('Ir', 'Mn', 'Rh')\",OTHERS,False\nmp-28274,\"{'F': 24.0, 'In': 4.0, 'Ba': 6.0}\",\"('Ba', 'F', 'In')\",OTHERS,False\nmp-1216875,\"{'Tm': 2.0, 'Cu': 6.0, 'Te': 6.0}\",\"('Cu', 'Te', 'Tm')\",OTHERS,False\nmp-755620,\"{'Mn': 1.0, 'Co': 5.0, 'O': 12.0}\",\"('Co', 'Mn', 'O')\",OTHERS,False\nmp-540469,\"{'Li': 2.0, 'Co': 3.0, 'P': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,False\nmp-20725,\"{'Pb': 2.0, 'O': 4.0}\",\"('O', 'Pb')\",OTHERS,False\nmp-40374,\"{'Na': 6.0, 'Ti': 1.0, 'Mn': 1.0, 'Si': 6.0, 'O': 18.0}\",\"('Mn', 'Na', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-1080096,\"{'Pt': 1.0, 'S': 6.0, 'N': 2.0}\",\"('N', 'Pt', 'S')\",OTHERS,False\nmp-1208658,\"{'Ta': 2.0, 'P': 8.0, 'S': 20.0, 'Cl': 10.0}\",\"('Cl', 'P', 'S', 'Ta')\",OTHERS,False\nmp-8013,\"{'F': 6.0, 'K': 1.0, 'Ru': 1.0}\",\"('F', 'K', 'Ru')\",OTHERS,False\nmp-21879,\"{'O': 6.0, 'Ba': 2.0, 'Ce': 1.0, 'Pt': 1.0}\",\"('Ba', 'Ce', 'O', 'Pt')\",OTHERS,False\nmp-1225453,\"{'Er': 14.0, 'Ag': 51.0}\",\"('Ag', 'Er')\",OTHERS,False\nmp-1217994,\"{'Ta': 2.0, 'Zn': 1.0, 'S': 4.0}\",\"('S', 'Ta', 'Zn')\",OTHERS,False\nmp-1246036,\"{'Ba': 4.0, 'Sn': 4.0, 'N': 8.0}\",\"('Ba', 'N', 'Sn')\",OTHERS,False\nmp-1199458,\"{'Co': 12.0, 'B': 6.0, 'P': 24.0, 'H': 12.0, 'Pb': 24.0, 'Cl': 6.0, 'O': 108.0}\",\"('B', 'Cl', 'Co', 'H', 'O', 'P', 'Pb')\",OTHERS,False\nmp-978960,\"{'Sm': 3.0, 'Tm': 1.0}\",\"('Sm', 'Tm')\",OTHERS,False\nmp-1029059,\"{'Te': 4.0, 'Mo': 1.0, 'W': 3.0, 'Se': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-626785,\"{'K': 2.0, 'H': 2.0, 'O': 2.0}\",\"('H', 'K', 'O')\",OTHERS,False\nmp-1183547,\"{'Ca': 1.0, 'Sb': 1.0, 'Pd': 2.0}\",\"('Ca', 'Pd', 'Sb')\",OTHERS,False\nmp-7074,\"{'O': 12.0, 'Na': 2.0, 'Si': 4.0, 'Sc': 2.0}\",\"('Na', 'O', 'Sc', 'Si')\",OTHERS,False\nmp-1213477,\"{'Cs': 4.0, 'Hf': 24.0, 'C': 4.0, 'Cl': 60.0}\",\"('C', 'Cl', 'Cs', 'Hf')\",OTHERS,False\nmp-651051,\"{'Te': 8.0, 'W': 12.0, 'C': 60.0, 'O': 60.0}\",\"('C', 'O', 'Te', 'W')\",OTHERS,False\nmp-24142,\"{'H': 8.0, 'O': 4.0, 'F': 10.0, 'Mg': 2.0, 'Al': 2.0}\",\"('Al', 'F', 'H', 'Mg', 'O')\",OTHERS,False\nmp-772808,\"{'K': 4.0, 'Bi': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('Bi', 'C', 'K', 'O', 'P')\",OTHERS,False\nmp-1191331,\"{'Ti': 16.0, 'Co': 8.0}\",\"('Co', 'Ti')\",OTHERS,False\nmp-698397,\"{'Sn': 1.0, 'H': 24.0, 'C': 6.0, 'N': 2.0, 'O': 2.0, 'F': 6.0}\",\"('C', 'F', 'H', 'N', 'O', 'Sn')\",OTHERS,False\nmp-780421,\"{'La': 6.0, 'Al': 6.0, 'O': 18.0}\",\"('Al', 'La', 'O')\",OTHERS,False\nmp-1210288,\"{'Na': 6.0, 'Mo': 2.0, 'O': 8.0}\",\"('Mo', 'Na', 'O')\",OTHERS,False\nmp-531773,\"{'Li': 28.0, 'Mg': 22.0, 'N': 25.0}\",\"('Li', 'Mg', 'N')\",OTHERS,False\nmp-1040443,\"{'K': 2.0, 'Ba': 2.0, 'Bi': 2.0, 'Te': 2.0, 'O': 12.0}\",\"('Ba', 'Bi', 'K', 'O', 'Te')\",OTHERS,False\nmp-625175,\"{'H': 12.0, 'Cl': 4.0, 'O': 20.0}\",\"('Cl', 'H', 'O')\",OTHERS,False\nmp-1215110,\"{'Co': 4.0, 'Mo': 12.0, 'O': 72.0}\",\"('Co', 'Mo', 'O')\",OTHERS,False\nmp-769122,\"{'Li': 8.0, 'Sb': 4.0, 'H': 12.0, 'O': 6.0, 'F': 20.0}\",\"('F', 'H', 'Li', 'O', 'Sb')\",OTHERS,False\nmp-867753,\"{'Cu': 1.0, 'Sb': 1.0, 'Rh': 2.0}\",\"('Cu', 'Rh', 'Sb')\",OTHERS,False\nmp-1200385,\"{'Eu': 12.0, 'Sb': 16.0, 'Se': 36.0}\",\"('Eu', 'Sb', 'Se')\",OTHERS,False\nmp-733877,\"{'Ca': 4.0, 'B': 12.0, 'H': 52.0, 'O': 48.0}\",\"('B', 'Ca', 'H', 'O')\",OTHERS,False\nmp-1211998,\"{'La': 2.0, 'In': 4.0, 'Cu': 18.0}\",\"('Cu', 'In', 'La')\",OTHERS,False\nmp-1188828,\"{'Ba': 4.0, 'Br': 8.0, 'O': 4.0}\",\"('Ba', 'Br', 'O')\",OTHERS,False\nmp-1200777,\"{'Er': 10.0, 'Ge': 20.0, 'Rh': 8.0}\",\"('Er', 'Ge', 'Rh')\",OTHERS,False\nmp-1195619,\"{'Pb': 16.0, 'N': 8.0, 'O': 40.0}\",\"('N', 'O', 'Pb')\",OTHERS,False\nmp-784631,\"{'Cr': 1.0, 'Ni': 2.0}\",\"('Cr', 'Ni')\",OTHERS,False\nmp-849556,\"{'Li': 6.0, 'Mn': 9.0, 'Si': 6.0, 'O': 24.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1210612,\"{'P': 4.0, 'N': 8.0, 'O': 16.0}\",\"('N', 'O', 'P')\",OTHERS,False\nmp-13610,\"{'F': 6.0, 'Zn': 1.0, 'Pb': 1.0}\",\"('F', 'Pb', 'Zn')\",OTHERS,False\nmp-776594,\"{'Mn': 8.0, 'O': 13.0, 'F': 3.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1120780,\"{'Au': 4.0, 'Cl': 4.0}\",\"('Au', 'Cl')\",OTHERS,False\nmp-549,\"{'Sc': 1.0, 'Sb': 1.0}\",\"('Sb', 'Sc')\",OTHERS,False\nmp-1184898,\"{'K': 3.0, 'Ga': 1.0}\",\"('Ga', 'K')\",OTHERS,False\nmp-1205959,\"{'Lu': 3.0, 'Mg': 3.0, 'Tl': 3.0}\",\"('Lu', 'Mg', 'Tl')\",OTHERS,False\nmp-555515,\"{'Cu': 2.0, 'Ag': 8.0, 'Te': 2.0, 'O': 12.0}\",\"('Ag', 'Cu', 'O', 'Te')\",OTHERS,False\nmp-1232078,\"{'Er': 8.0, 'Mg': 4.0, 'Se': 16.0}\",\"('Er', 'Mg', 'Se')\",OTHERS,False\nmp-766058,\"{'Na': 2.0, 'Fe': 16.0, 'O': 24.0}\",\"('Fe', 'Na', 'O')\",OTHERS,False\nmp-1096055,\"{'Y': 2.0, 'Zn': 1.0, 'Pd': 1.0}\",\"('Pd', 'Y', 'Zn')\",OTHERS,False\nmp-1206018,\"{'Mn': 2.0, 'Ge': 2.0, 'As': 4.0}\",\"('As', 'Ge', 'Mn')\",OTHERS,False\nmvc-649,\"{'Ba': 2.0, 'Y': 1.0, 'Sn': 3.0, 'O': 8.0}\",\"('Ba', 'O', 'Sn', 'Y')\",OTHERS,False\nmp-1215982,\"{'Yb': 3.0, 'Fe': 3.0, 'S': 8.0}\",\"('Fe', 'S', 'Yb')\",OTHERS,False\nmp-561529,\"{'Eu': 8.0, 'K': 4.0, 'Si': 16.0, 'O': 40.0, 'F': 4.0}\",\"('Eu', 'F', 'K', 'O', 'Si')\",OTHERS,False\nmp-1183203,\"{'Al': 1.0, 'Ge': 3.0}\",\"('Al', 'Ge')\",OTHERS,False\nmp-1147737,\"{'Li': 4.0, 'Zn': 1.0, 'P': 2.0, 'S': 8.0}\",\"('Li', 'P', 'S', 'Zn')\",OTHERS,False\nmp-29391,\"{'Sb': 4.0, 'Cl': 12.0, 'F': 8.0}\",\"('Cl', 'F', 'Sb')\",OTHERS,False\nmp-762632,\"{'Li': 2.0, 'Fe': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1245632,\"{'Re': 2.0, 'Ni': 2.0, 'N': 4.0}\",\"('N', 'Ni', 'Re')\",OTHERS,False\nmp-1175401,\"{'Li': 9.0, 'Co': 7.0, 'O': 16.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmvc-4436,\"{'Zn': 12.0, 'Co': 8.0, 'Ge': 12.0, 'O': 48.0}\",\"('Co', 'Ge', 'O', 'Zn')\",OTHERS,False\nmp-18473,\"{'O': 16.0, 'Rb': 2.0, 'Mo': 4.0, 'La': 2.0}\",\"('La', 'Mo', 'O', 'Rb')\",OTHERS,False\nmp-1215594,\"{'Yb': 1.0, 'Gd': 3.0, 'F': 12.0}\",\"('F', 'Gd', 'Yb')\",OTHERS,False\nmp-758890,\"{'Li': 2.0, 'Ag': 4.0, 'F': 8.0}\",\"('Ag', 'F', 'Li')\",OTHERS,False\nmp-764009,\"{'Mn': 6.0, 'O': 7.0, 'F': 5.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-20771,\"{'Zn': 2.0, 'Ge': 2.0, 'Eu': 1.0}\",\"('Eu', 'Ge', 'Zn')\",OTHERS,False\nmp-17138,\"{'O': 24.0, 'P': 4.0, 'K': 4.0, 'Mo': 4.0}\",\"('K', 'Mo', 'O', 'P')\",OTHERS,False\nmp-1097593,\"{'Cu': 1.0, 'Sb': 1.0, 'Pd': 2.0}\",\"('Cu', 'Pd', 'Sb')\",OTHERS,False\nmp-1184788,\"{'Ge': 2.0, 'Rh': 6.0}\",\"('Ge', 'Rh')\",OTHERS,False\nmp-776410,\"{'Mg': 8.0, 'N': 16.0, 'O': 48.0}\",\"('Mg', 'N', 'O')\",OTHERS,False\nmp-5077,\"{'Li': 2.0, 'Na': 1.0, 'Sb': 1.0}\",\"('Li', 'Na', 'Sb')\",OTHERS,False\nmp-1112164,\"{'K': 2.0, 'Er': 1.0, 'Cu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cu', 'Er', 'K')\",OTHERS,False\nmp-978534,\"{'Si': 2.0, 'Ge': 2.0}\",\"('Ge', 'Si')\",OTHERS,False\nmp-758776,\"{'Li': 6.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1223668,\"{'K': 1.0, 'Mn': 1.0, 'Sn': 3.0, 'O': 8.0}\",\"('K', 'Mn', 'O', 'Sn')\",OTHERS,False\nmp-1204107,\"{'Al': 8.0, 'Fe': 4.0, 'Si': 10.0, 'O': 36.0}\",\"('Al', 'Fe', 'O', 'Si')\",OTHERS,False\nmp-1228111,\"{'Ba': 1.0, 'Nb': 2.0, 'Fe': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Ba', 'Fe', 'Nb', 'O', 'P')\",OTHERS,False\nmp-1222388,\"{'Li': 1.0, 'Mo': 6.0, 'Se': 6.0, 'S': 2.0}\",\"('Li', 'Mo', 'S', 'Se')\",OTHERS,False\nmp-778867,\"{'Li': 9.0, 'Mn': 12.0, 'B': 12.0, 'O': 36.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-557961,\"{'Sb': 6.0, 'C': 6.0, 'N': 6.0, 'Cl': 24.0, 'O': 6.0}\",\"('C', 'Cl', 'N', 'O', 'Sb')\",OTHERS,False\nmp-1079874,\"{'Er': 3.0, 'Sn': 3.0, 'Pd': 3.0}\",\"('Er', 'Pd', 'Sn')\",OTHERS,False\nmp-1199988,\"{'Al': 2.0, 'Pb': 6.0, 'S': 2.0, 'O': 22.0}\",\"('Al', 'O', 'Pb', 'S')\",OTHERS,False\nmp-1097485,\"{'Ca': 1.0, 'La': 1.0, 'Au': 2.0}\",\"('Au', 'Ca', 'La')\",OTHERS,False\nmp-27642,\"{'Br': 20.0, 'Pa': 4.0}\",\"('Br', 'Pa')\",OTHERS,False\nmvc-3734,\"{'Zn': 4.0, 'Cr': 4.0, 'F': 20.0}\",\"('Cr', 'F', 'Zn')\",OTHERS,False\nmp-730585,\"{'Li': 8.0, 'B': 8.0, 'H': 16.0, 'O': 8.0, 'F': 32.0}\",\"('B', 'F', 'H', 'Li', 'O')\",OTHERS,False\nmp-1094069,\"{'Sr': 2.0, 'Cd': 2.0, 'Cu': 1.0, 'S': 2.0, 'O': 2.0}\",\"('Cd', 'Cu', 'O', 'S', 'Sr')\",OTHERS,False\nmp-759591,\"{'Sr': 20.0, 'V': 15.0, 'O': 49.0}\",\"('O', 'Sr', 'V')\",OTHERS,False\nmp-865430,\"{'Y': 1.0, 'Te': 1.0}\",\"('Te', 'Y')\",OTHERS,False\nmp-1178550,\"{'Al': 4.0, 'In': 4.0, 'O': 12.0}\",\"('Al', 'In', 'O')\",OTHERS,False\nmp-1214951,\"{'Al': 2.0, 'Zn': 20.0, 'B': 16.0, 'Rh': 36.0}\",\"('Al', 'B', 'Rh', 'Zn')\",OTHERS,False\nmp-774064,\"{'Li': 2.0, 'Sb': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1228974,\"{'Al': 4.0, 'V': 4.0, 'Co': 4.0}\",\"('Al', 'Co', 'V')\",OTHERS,False\nmp-770431,\"{'Ho': 8.0, 'Se': 12.0, 'O': 48.0}\",\"('Ho', 'O', 'Se')\",OTHERS,False\nmp-1194267,\"{'Cu': 6.0, 'Te': 2.0, 'Pb': 2.0, 'O': 16.0}\",\"('Cu', 'O', 'Pb', 'Te')\",OTHERS,False\nmp-849741,\"{'Ni': 8.0, 'P': 24.0, 'O': 72.0}\",\"('Ni', 'O', 'P')\",OTHERS,False\nmp-1193985,\"{'Ta': 2.0, 'Co': 21.0, 'B': 6.0}\",\"('B', 'Co', 'Ta')\",OTHERS,False\nmp-1019738,\"{'Eu': 8.0, 'Ba': 4.0, 'O': 16.0}\",\"('Ba', 'Eu', 'O')\",OTHERS,False\nmp-1208033,\"{'Tl': 2.0, 'Pt': 6.0, 'O': 8.0}\",\"('O', 'Pt', 'Tl')\",OTHERS,False\nmp-677716,\"{'Rb': 4.0, 'Al': 12.0, 'Cd': 4.0, 'Si': 12.0, 'O': 48.0}\",\"('Al', 'Cd', 'O', 'Rb', 'Si')\",OTHERS,False\nmp-1224061,\"{'In': 2.0, 'Te': 1.0, 'As': 1.0}\",\"('As', 'In', 'Te')\",OTHERS,False\nmp-1215182,\"{'Zr': 1.0, 'Ti': 1.0, 'C': 2.0}\",\"('C', 'Ti', 'Zr')\",OTHERS,False\nmp-1223990,\"{'In': 4.0, 'Bi': 1.0}\",\"('Bi', 'In')\",OTHERS,False\nmp-690672,\"{'K': 6.0, 'Na': 2.0, 'Fe': 2.0, 'Cl': 12.0}\",\"('Cl', 'Fe', 'K', 'Na')\",OTHERS,False\nmp-1222492,\"{'Li': 3.0, 'Er': 1.0, 'Br': 6.0}\",\"('Br', 'Er', 'Li')\",OTHERS,False\nmp-1227726,\"{'Ca': 8.0, 'Mn': 4.0, 'Al': 4.0, 'O': 22.0}\",\"('Al', 'Ca', 'Mn', 'O')\",OTHERS,False\nmp-7818,\"{'Se': 2.0, 'Pd': 8.0}\",\"('Pd', 'Se')\",OTHERS,False\nmp-6563,\"{'Al': 36.0, 'Si': 24.0, 'Fe': 16.0, 'Tb': 4.0}\",\"('Al', 'Fe', 'Si', 'Tb')\",OTHERS,False\nmp-1181047,\"{'Ho': 10.0, 'Sb': 2.0, 'Au': 4.0}\",\"('Au', 'Ho', 'Sb')\",OTHERS,False\nmp-733612,\"{'Rb': 4.0, 'H': 12.0, 'S': 8.0, 'O': 32.0}\",\"('H', 'O', 'Rb', 'S')\",OTHERS,False\nmp-1203791,\"{'B': 8.0, 'P': 4.0, 'H': 80.0, 'C': 20.0, 'N': 4.0}\",\"('B', 'C', 'H', 'N', 'P')\",OTHERS,False\nmp-6782,\"{'Li': 2.0, 'O': 6.0, 'Zr': 1.0, 'Te': 1.0}\",\"('Li', 'O', 'Te', 'Zr')\",OTHERS,False\nmp-865274,\"{'Tl': 8.0, 'In': 8.0, 'S': 16.0}\",\"('In', 'S', 'Tl')\",OTHERS,False\nmp-1185024,\"{'La': 1.0, 'Ag': 3.0}\",\"('Ag', 'La')\",OTHERS,False\nmp-1211967,\"{'K': 4.0, 'Sr': 24.0, 'Sc': 4.0, 'Si': 16.0, 'O': 64.0}\",\"('K', 'O', 'Sc', 'Si', 'Sr')\",OTHERS,False\nmp-24013,\"{'H': 144.0, 'N': 48.0, 'Cl': 40.0, 'Cr': 8.0, 'Cu': 8.0}\",\"('Cl', 'Cr', 'Cu', 'H', 'N')\",OTHERS,False\nmp-30053,\"{'C': 2.0, 'N': 2.0, 'Na': 2.0}\",\"('C', 'N', 'Na')\",OTHERS,False\nmp-1401,\"{'Zn': 4.0, 'Zr': 2.0}\",\"('Zn', 'Zr')\",OTHERS,False\nmp-1185522,\"{'Lu': 6.0, 'Tl': 2.0}\",\"('Lu', 'Tl')\",OTHERS,False\nmp-697924,\"{'Mg': 1.0, 'Co': 1.0, 'H': 16.0, 'Cl': 4.0, 'O': 8.0}\",\"('Cl', 'Co', 'H', 'Mg', 'O')\",OTHERS,False\nmp-1213915,\"{'Ce': 6.0, 'Zn': 6.0, 'Co': 12.0}\",\"('Ce', 'Co', 'Zn')\",OTHERS,False\nmp-1074264,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1211564,\"{'Li': 4.0, 'Er': 16.0, 'Ge': 16.0}\",\"('Er', 'Ge', 'Li')\",OTHERS,False\nmp-30557,\"{'Co': 9.0, 'Ga': 6.0, 'Y': 3.0}\",\"('Co', 'Ga', 'Y')\",OTHERS,False\nmp-978522,\"{'Sm': 1.0, 'Y': 1.0, 'Ir': 2.0}\",\"('Ir', 'Sm', 'Y')\",OTHERS,False\nmp-755210,\"{'Y': 4.0, 'Cu': 2.0, 'O': 7.0}\",\"('Cu', 'O', 'Y')\",OTHERS,False\nmp-1228930,\"{'Ba': 6.0, 'La': 2.0, 'V': 6.0, 'O': 24.0}\",\"('Ba', 'La', 'O', 'V')\",OTHERS,False\nmp-1238874,\"{'Ti': 4.0, 'Cr': 4.0, 'Ag': 4.0, 'S': 16.0}\",\"('Ag', 'Cr', 'S', 'Ti')\",OTHERS,False\nmp-1223292,\"{'La': 2.0, 'Cu': 5.0, 'Ni': 5.0}\",\"('Cu', 'La', 'Ni')\",OTHERS,False\nmp-672689,\"{'Hf': 6.0, 'Co': 16.0, 'Si': 7.0}\",\"('Co', 'Hf', 'Si')\",OTHERS,False\nmp-781060,\"{'Mn': 8.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-12024,\"{'V': 4.0, 'Se': 8.0, 'Rb': 4.0}\",\"('Rb', 'Se', 'V')\",OTHERS,False\nmp-1206169,\"{'Sr': 2.0, 'Cu': 2.0, 'Si': 2.0}\",\"('Cu', 'Si', 'Sr')\",OTHERS,False\nmp-1219552,\"{'Rb': 2.0, 'Ti': 6.0, 'Nb': 2.0, 'O': 18.0}\",\"('Nb', 'O', 'Rb', 'Ti')\",OTHERS,False\nmp-685632,\"{'Ba': 7.0, 'U': 7.0, 'O': 24.0}\",\"('Ba', 'O', 'U')\",OTHERS,False\nmp-1190037,\"{'Nb': 6.0, 'Fe': 2.0, 'Se': 12.0}\",\"('Fe', 'Nb', 'Se')\",OTHERS,False\nmp-754634,\"{'Li': 6.0, 'W': 1.0, 'O': 6.0}\",\"('Li', 'O', 'W')\",OTHERS,False\nmp-1029236,\"{'Te': 6.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0}\",\"('Mo', 'Se', 'Te', 'W')\",OTHERS,False\nmp-631405,\"{'Zr': 1.0, 'Tc': 1.0, 'Cl': 1.0}\",\"('Cl', 'Tc', 'Zr')\",OTHERS,False\nmp-1181340,\"{'Fe': 6.0, 'O': 8.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-1187300,\"{'Tb': 3.0, 'Pm': 1.0}\",\"('Pm', 'Tb')\",OTHERS,False\nmp-1245945,\"{'K': 2.0, 'Sn': 1.0, 'N': 2.0}\",\"('K', 'N', 'Sn')\",OTHERS,False\nmp-1201836,\"{'Ti': 20.0, 'As': 12.0}\",\"('As', 'Ti')\",OTHERS,False\nmp-642651,\"{'Yb': 8.0, 'Ge': 16.0, 'Ru': 12.0}\",\"('Ge', 'Ru', 'Yb')\",OTHERS,False\nmp-625465,\"{'Tm': 2.0, 'H': 6.0, 'O': 6.0}\",\"('H', 'O', 'Tm')\",OTHERS,False\nmp-30364,\"{'Ba': 1.0, 'Au': 5.0}\",\"('Au', 'Ba')\",OTHERS,False\nmp-1074924,\"{'Mg': 6.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-865329,\"{'Lu': 2.0, 'Mg': 1.0, 'Tc': 1.0}\",\"('Lu', 'Mg', 'Tc')\",OTHERS,False\nmp-759096,\"{'Na': 7.0, 'W': 12.0, 'O': 36.0}\",\"('Na', 'O', 'W')\",OTHERS,False\nmp-1207492,\"{'Zn': 3.0, 'P': 2.0, 'H': 4.0, 'O': 8.0}\",\"('H', 'O', 'P', 'Zn')\",OTHERS,False\nmp-867669,\"{'Li': 8.0, 'V': 2.0, 'F': 12.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-772826,\"{'K': 8.0, 'Li': 4.0, 'Ti': 8.0, 'As': 8.0, 'O': 40.0}\",\"('As', 'K', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-1207673,\"{'Yb': 8.0, 'Sn': 20.0, 'Pd': 12.0}\",\"('Pd', 'Sn', 'Yb')\",OTHERS,False\nmp-862331,\"{'La': 2.0, 'Cu': 1.0, 'Ru': 1.0}\",\"('Cu', 'La', 'Ru')\",OTHERS,False\nmp-1096982,\"{'H': 2.0, 'C': 2.0, 'S': 1.0}\",\"('C', 'H', 'S')\",OTHERS,False\nmp-867815,\"{'Ac': 2.0, 'Ga': 6.0}\",\"('Ac', 'Ga')\",OTHERS,False\nmp-1184248,\"{'Er': 1.0, 'Tm': 1.0, 'Pd': 2.0}\",\"('Er', 'Pd', 'Tm')\",OTHERS,False\nmp-23130,\"{'O': 2.0, 'Cl': 2.0, 'Co': 1.0, 'Sr': 2.0}\",\"('Cl', 'Co', 'O', 'Sr')\",OTHERS,False\nmvc-277,\"{'Sr': 4.0, 'Cu': 4.0, 'Sn': 2.0, 'O': 14.0}\",\"('Cu', 'O', 'Sn', 'Sr')\",OTHERS,False\nmp-683792,\"{'Fe': 8.0, 'Os': 4.0, 'C': 48.0, 'O': 48.0}\",\"('C', 'Fe', 'O', 'Os')\",OTHERS,False\nmp-557145,\"{'Cr': 4.0, 'Sb': 4.0, 'F': 40.0}\",\"('Cr', 'F', 'Sb')\",OTHERS,False\nmp-1212754,\"{'Gd': 2.0, 'Cl': 6.0, 'O': 24.0}\",\"('Cl', 'Gd', 'O')\",OTHERS,False\nmp-1211805,\"{'Pr': 16.0, 'Sb': 28.0, 'Rh': 34.0}\",\"('Pr', 'Rh', 'Sb')\",OTHERS,False\nmp-510709,\"{'Sr': 8.0, 'As': 8.0, 'O': 40.0, 'H': 24.0}\",\"('As', 'H', 'O', 'Sr')\",OTHERS,False\nmp-18493,\"{'O': 24.0, 'Na': 8.0, 'P': 6.0, 'Fe': 4.0}\",\"('Fe', 'Na', 'O', 'P')\",OTHERS,False\nmp-684000,\"{'Eu': 8.0, 'Si': 12.0, 'Ni': 32.0}\",\"('Eu', 'Ni', 'Si')\",OTHERS,False\nmp-1352,\"{'N': 1.0, 'Zr': 1.0}\",\"('N', 'Zr')\",OTHERS,False\nmp-1187999,\"{'Yb': 6.0, 'Lu': 2.0}\",\"('Lu', 'Yb')\",OTHERS,False\nmp-1190145,\"{'Na': 4.0, 'In': 4.0, 'Ge': 2.0, 'S': 12.0}\",\"('Ge', 'In', 'Na', 'S')\",OTHERS,False\nmp-24366,\"{'K': 4.0, 'Zn': 2.0, 'H': 24.0, 'S': 4.0, 'O': 28.0}\",\"('H', 'K', 'O', 'S', 'Zn')\",OTHERS,False\nmp-1025266,\"{'Tb': 2.0, 'Cr': 2.0, 'C': 3.0}\",\"('C', 'Cr', 'Tb')\",OTHERS,False\nmp-9529,\"{'Ge': 4.0, 'Rh': 4.0, 'Dy': 4.0}\",\"('Dy', 'Ge', 'Rh')\",OTHERS,False\nmp-754050,\"{'Mn': 2.0, 'O': 3.0, 'F': 1.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1036237,\"{'Mg': 14.0, 'Mn': 1.0, 'Fe': 1.0, 'O': 16.0}\",\"('Fe', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-1211532,\"{'K': 4.0, 'Tm': 4.0, 'Mo': 8.0, 'O': 32.0}\",\"('K', 'Mo', 'O', 'Tm')\",OTHERS,False\nmp-556939,\"{'Np': 2.0, 'I': 2.0, 'O': 2.0}\",\"('I', 'Np', 'O')\",OTHERS,False\nmp-978543,\"{'Sm': 1.0, 'Er': 1.0, 'Tl': 2.0}\",\"('Er', 'Sm', 'Tl')\",OTHERS,False\nmp-1182571,\"{'Ca': 8.0, 'Be': 16.0, 'P': 12.0, 'O': 80.0}\",\"('Be', 'Ca', 'O', 'P')\",OTHERS,False\nmp-1173794,\"{'Na': 18.0, 'O': 3.0}\",\"('Na', 'O')\",OTHERS,False\nmp-961711,\"{'Zr': 1.0, 'Si': 1.0, 'Pt': 1.0}\",\"('Pt', 'Si', 'Zr')\",OTHERS,False\nmp-1211960,\"{'K': 4.0, 'Ge': 4.0, 'O': 6.0}\",\"('Ge', 'K', 'O')\",OTHERS,False\nmp-36539,\"{'Bi': 2.0, 'K': 2.0, 'Se': 4.0}\",\"('Bi', 'K', 'Se')\",OTHERS,False\nmp-20231,\"{'Pd': 4.0, 'In': 2.0, 'Ce': 2.0}\",\"('Ce', 'In', 'Pd')\",OTHERS,False\nmp-1183867,\"{'Ce': 2.0, 'Cd': 1.0, 'In': 1.0}\",\"('Cd', 'Ce', 'In')\",OTHERS,False\nmp-1096521,\"{'Al': 2.0, 'Fe': 1.0, 'Cu': 1.0}\",\"('Al', 'Cu', 'Fe')\",OTHERS,False\nmp-999576,\"{'Mn': 2.0, 'Si': 1.0, 'Ru': 1.0}\",\"('Mn', 'Ru', 'Si')\",OTHERS,False\nmp-1209037,\"{'Sr': 8.0, 'Cr': 8.0, 'F': 40.0}\",\"('Cr', 'F', 'Sr')\",OTHERS,False\nmp-8766,\"{'S': 4.0, 'Co': 2.0, 'Rb': 4.0}\",\"('Co', 'Rb', 'S')\",OTHERS,False\nmp-1191014,\"{'Ce': 12.0, 'Ni': 4.0, 'Ge': 8.0}\",\"('Ce', 'Ge', 'Ni')\",OTHERS,False\nmp-755271,\"{'Li': 3.0, 'Ni': 3.0, 'B': 3.0, 'O': 9.0}\",\"('B', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-978,\"{'Sr': 8.0, 'Sn': 4.0}\",\"('Sn', 'Sr')\",OTHERS,False\nmp-867908,\"{'La': 1.0, 'Bi': 1.0, 'Au': 2.0}\",\"('Au', 'Bi', 'La')\",OTHERS,False\nmp-8895,\"{'B': 4.0, 'Ca': 2.0, 'Rh': 5.0}\",\"('B', 'Ca', 'Rh')\",OTHERS,False\nmp-753482,\"{'Li': 2.0, 'Mn': 1.0, 'Co': 1.0, 'O': 4.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-759117,\"{'Li': 8.0, 'Sb': 4.0, 'P': 12.0, 'O': 40.0}\",\"('Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1248957,\"{'Si': 32.0, 'O': 64.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1205991,\"{'La': 1.0, 'Bi': 2.0, 'Cl': 1.0, 'O': 4.0}\",\"('Bi', 'Cl', 'La', 'O')\",OTHERS,False\nmp-863250,\"{'Ta': 1.0, 'Mn': 2.0, 'Ge': 1.0}\",\"('Ge', 'Mn', 'Ta')\",OTHERS,False\nmp-510085,\"{'Er': 8.0, 'Ti': 12.0, 'Si': 16.0}\",\"('Er', 'Si', 'Ti')\",OTHERS,False\nmp-1209592,\"{'P': 8.0, 'O': 24.0}\",\"('O', 'P')\",OTHERS,False\nmp-1077164,\"{'Li': 1.0, 'Ti': 1.0, 'S': 2.0, 'O': 2.0}\",\"('Li', 'O', 'S', 'Ti')\",OTHERS,False\nmp-1246108,\"{'Mn': 10.0, 'Zn': 1.0, 'N': 8.0}\",\"('Mn', 'N', 'Zn')\",OTHERS,False\nmp-1203960,\"{'U': 4.0, 'H': 24.0, 'Br': 8.0, 'O': 20.0}\",\"('Br', 'H', 'O', 'U')\",OTHERS,False\nmp-763558,\"{'Li': 1.0, 'V': 2.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Li', 'O', 'V')\",OTHERS,False\nmp-1206944,\"{'La': 3.0, 'Mg': 3.0, 'Cu': 3.0}\",\"('Cu', 'La', 'Mg')\",OTHERS,False\nmp-29903,\"{'F': 20.0, 'Te': 4.0, 'Tl': 4.0}\",\"('F', 'Te', 'Tl')\",OTHERS,False\nmp-1062310,\"{'Lu': 1.0, 'Cd': 2.0}\",\"('Cd', 'Lu')\",OTHERS,False\nmp-695900,\"{'Sb': 4.0, 'H': 4.0, 'C': 4.0, 'S': 4.0, 'O': 12.0, 'F': 32.0}\",\"('C', 'F', 'H', 'O', 'S', 'Sb')\",OTHERS,False\nmp-30145,\"{'Se': 26.0, 'Rb': 4.0, 'Bi': 16.0}\",\"('Bi', 'Rb', 'Se')\",OTHERS,False\nmp-1221327,\"{'Na': 2.0, 'Mn': 1.0, 'Ni': 1.0, 'O': 4.0}\",\"('Mn', 'Na', 'Ni', 'O')\",OTHERS,False\nmp-1237078,\"{'Rb': 2.0, 'U': 1.0, 'Br': 4.0, 'O': 4.0}\",\"('Br', 'O', 'Rb', 'U')\",OTHERS,False\nmp-1212239,\"{'Hg': 6.0, 'Pt': 2.0, 'N': 4.0, 'Cl': 16.0}\",\"('Cl', 'Hg', 'N', 'Pt')\",OTHERS,False\nmp-1182773,\"{'Ba': 4.0, 'Gd': 8.0, 'Te': 16.0}\",\"('Ba', 'Gd', 'Te')\",OTHERS,False\nmp-1102758,\"{'Lu': 4.0, 'Ga': 4.0, 'Ni': 4.0}\",\"('Ga', 'Lu', 'Ni')\",OTHERS,False\nmp-30823,\"{'Os': 6.0, 'Pu': 10.0}\",\"('Os', 'Pu')\",OTHERS,False\nmp-1436,\"{'Ag': 4.0, 'Eu': 2.0}\",\"('Ag', 'Eu')\",OTHERS,False\nmp-973964,\"{'Lu': 2.0, 'Ga': 1.0, 'Ag': 1.0}\",\"('Ag', 'Ga', 'Lu')\",OTHERS,False\nmp-541751,\"{'Bi': 24.0, 'Ni': 8.0, 'I': 6.0}\",\"('Bi', 'I', 'Ni')\",OTHERS,False\nmp-1199681,\"{'Al': 4.0, 'Sn': 4.0, 'P': 4.0, 'H': 72.0, 'C': 24.0, 'Cl': 16.0}\",\"('Al', 'C', 'Cl', 'H', 'P', 'Sn')\",OTHERS,False\nmp-23253,\"{'Rb': 2.0, 'Bi': 4.0}\",\"('Bi', 'Rb')\",OTHERS,False\nmp-616565,\"{'Rb': 8.0, 'Cr': 16.0, 'O': 52.0}\",\"('Cr', 'O', 'Rb')\",OTHERS,False\nmp-851093,\"{'Ni': 6.0, 'P': 8.0, 'O': 28.0}\",\"('Ni', 'O', 'P')\",OTHERS,False\nmp-1114365,\"{'Rb': 2.0, 'Na': 1.0, 'Ir': 1.0, 'F': 6.0}\",\"('F', 'Ir', 'Na', 'Rb')\",OTHERS,False\nmp-755892,\"{'Sr': 2.0, 'La': 4.0, 'Cl': 16.0}\",\"('Cl', 'La', 'Sr')\",OTHERS,False\nmp-1225227,\"{'Fe': 3.0, 'Co': 3.0, 'Si': 2.0}\",\"('Co', 'Fe', 'Si')\",OTHERS,False\nmvc-14364,\"{'Mg': 4.0, 'Sb': 4.0, 'F': 20.0}\",\"('F', 'Mg', 'Sb')\",OTHERS,False\nmp-1245791,\"{'K': 4.0, 'Ni': 4.0, 'N': 4.0}\",\"('K', 'N', 'Ni')\",OTHERS,False\nmp-2819,\"{'In': 1.0, 'Te': 1.0}\",\"('In', 'Te')\",OTHERS,False\nmvc-14220,\"{'Mg': 2.0, 'Mo': 2.0, 'F': 10.0}\",\"('F', 'Mg', 'Mo')\",OTHERS,False\nmp-850908,\"{'Li': 2.0, 'Mg': 11.0, 'W': 12.0, 'O': 48.0}\",\"('Li', 'Mg', 'O', 'W')\",OTHERS,False\nmp-778284,\"{'Li': 4.0, 'V': 3.0, 'Co': 2.0, 'Sn': 3.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'Sn', 'V')\",OTHERS,False\nmp-1218618,\"{'Sr': 12.0, 'Ca': 2.0, 'Mn': 8.0, 'O': 26.0}\",\"('Ca', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1246706,\"{'Na': 16.0, 'Ir': 16.0, 'N': 32.0}\",\"('Ir', 'N', 'Na')\",OTHERS,False\nmp-1245695,\"{'Sr': 28.0, 'Re': 4.0, 'N': 24.0}\",\"('N', 'Re', 'Sr')\",OTHERS,False\nmp-1221056,\"{'Na': 2.0, 'Dy': 2.0, 'Ti': 4.0, 'O': 12.0}\",\"('Dy', 'Na', 'O', 'Ti')\",OTHERS,False\nmp-1867,\"{'Ni': 2.0, 'Ta': 4.0}\",\"('Ni', 'Ta')\",OTHERS,False\nmp-555993,\"{'Cr': 2.0, 'Ag': 6.0, 'Cl': 2.0, 'O': 8.0}\",\"('Ag', 'Cl', 'Cr', 'O')\",OTHERS,False\nmp-1114513,\"{'Rb': 2.0, 'Na': 1.0, 'Ce': 1.0, 'I': 6.0}\",\"('Ce', 'I', 'Na', 'Rb')\",OTHERS,False\nmp-762019,\"{'Li': 1.0, 'V': 1.0, 'C': 2.0, 'O': 6.0}\",\"('C', 'Li', 'O', 'V')\",OTHERS,False\nmp-3155,\"{'C': 4.0, 'Sc': 3.0, 'Fe': 1.0}\",\"('C', 'Fe', 'Sc')\",OTHERS,False\nmp-778904,\"{'Mn': 12.0, 'O': 14.0, 'F': 10.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1106022,\"{'Y': 4.0, 'Ge': 10.0, 'Rh': 6.0}\",\"('Ge', 'Rh', 'Y')\",OTHERS,False\nmp-1018639,\"{'Ti': 1.0, 'Sn': 1.0, 'O': 3.0}\",\"('O', 'Sn', 'Ti')\",OTHERS,False\nmp-553898,\"{'Ge': 12.0, 'Pb': 12.0, 'O': 36.0}\",\"('Ge', 'O', 'Pb')\",OTHERS,False\nmp-1215539,\"{'Yb': 1.0, 'Mn': 2.0, 'Bi': 1.0, 'Sb': 1.0}\",\"('Bi', 'Mn', 'Sb', 'Yb')\",OTHERS,False\nmp-698074,\"{'Ca': 6.0, 'H': 6.0, 'S': 6.0, 'O': 27.0}\",\"('Ca', 'H', 'O', 'S')\",OTHERS,False\nmp-690772,\"{'V': 10.0, 'S': 16.0}\",\"('S', 'V')\",OTHERS,False\nmp-1222856,\"{'La': 2.0, 'Ge': 4.0, 'Pd': 2.0, 'Rh': 2.0}\",\"('Ge', 'La', 'Pd', 'Rh')\",OTHERS,False\nmp-1184657,{'Hg': 8.0},\"('Hg',)\",OTHERS,False\nmp-1223244,\"{'La': 2.0, 'Al': 3.0, 'Ge': 1.0}\",\"('Al', 'Ge', 'La')\",OTHERS,False\nmp-1016883,\"{'Zr': 1.0, 'Zn': 1.0, 'O': 3.0}\",\"('O', 'Zn', 'Zr')\",OTHERS,False\nmp-1025068,\"{'Nd': 1.0, 'B': 2.0, 'Ir': 3.0}\",\"('B', 'Ir', 'Nd')\",OTHERS,False\nmp-865746,\"{'Ga': 1.0, 'Tc': 2.0, 'W': 1.0}\",\"('Ga', 'Tc', 'W')\",OTHERS,False\nmp-15397,\"{'O': 15.0, 'Al': 2.0, 'Ti': 7.0}\",\"('Al', 'O', 'Ti')\",OTHERS,False\nmp-1142857,\"{'Si': 12.0, 'Mo': 12.0, 'O': 48.0}\",\"('Mo', 'O', 'Si')\",OTHERS,False\nmp-769734,\"{'Sc': 4.0, 'Fe': 4.0, 'O': 12.0}\",\"('Fe', 'O', 'Sc')\",OTHERS,False\nmp-1188757,\"{'Y': 12.0, 'Os': 4.0}\",\"('Os', 'Y')\",OTHERS,False\nmp-505225,\"{'U': 4.0, 'P': 4.0, 'O': 20.0}\",\"('O', 'P', 'U')\",OTHERS,False\nmp-1205693,\"{'Ba': 2.0, 'Dy': 1.0, 'U': 1.0, 'O': 6.0}\",\"('Ba', 'Dy', 'O', 'U')\",OTHERS,False\nmp-29564,\"{'Mg': 6.0, 'Si': 8.0, 'Ba': 4.0}\",\"('Ba', 'Mg', 'Si')\",OTHERS,False\nmp-760432,\"{'Cu': 4.0, 'O': 6.0}\",\"('Cu', 'O')\",OTHERS,False\nmp-558954,\"{'Na': 8.0, 'Sr': 8.0, 'Al': 8.0, 'P': 4.0, 'O': 16.0, 'F': 36.0}\",\"('Al', 'F', 'Na', 'O', 'P', 'Sr')\",OTHERS,False\nmvc-10142,\"{'Mg': 6.0, 'Fe': 12.0, 'O': 24.0}\",\"('Fe', 'Mg', 'O')\",OTHERS,False\nmp-1097204,\"{'Al': 1.0, 'Ga': 1.0, 'Ir': 2.0}\",\"('Al', 'Ga', 'Ir')\",OTHERS,False\nmp-849457,\"{'Li': 3.0, 'Ni': 1.0, 'Sb': 4.0, 'O': 12.0}\",\"('Li', 'Ni', 'O', 'Sb')\",OTHERS,False\nmp-779007,\"{'Li': 10.0, 'Fe': 2.0, 'Co': 3.0, 'Ni': 3.0, 'O': 16.0}\",\"('Co', 'Fe', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-1219869,\"{'Pr': 2.0, 'Fe': 1.0, 'Si': 3.0}\",\"('Fe', 'Pr', 'Si')\",OTHERS,False\nmvc-1093,\"{'Ca': 4.0, 'W': 4.0, 'O': 8.0}\",\"('Ca', 'O', 'W')\",OTHERS,False\nmp-29477,\"{'C': 4.0, 'S': 14.0, 'Cl': 12.0}\",\"('C', 'Cl', 'S')\",OTHERS,False\nmp-29519,\"{'K': 4.0, 'I': 16.0, 'Au': 4.0}\",\"('Au', 'I', 'K')\",OTHERS,False\nmp-1209818,\"{'Ni': 7.0, 'Mo': 9.0, 'P': 6.0}\",\"('Mo', 'Ni', 'P')\",OTHERS,False\nmp-2847,\"{'B': 16.0, 'Er': 4.0}\",\"('B', 'Er')\",OTHERS,False\nmp-1176980,\"{'Li': 12.0, 'Mn': 2.0, 'V': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-849732,\"{'Li': 1.0, 'Sb': 1.0, 'Te': 3.0, 'O': 12.0}\",\"('Li', 'O', 'Sb', 'Te')\",OTHERS,False\nmp-1211672,\"{'Nd': 6.0, 'N': 8.0, 'O': 33.0}\",\"('N', 'Nd', 'O')\",OTHERS,False\nmp-774389,\"{'Li': 4.0, 'Mn': 1.0, 'V': 3.0, 'P': 8.0, 'O': 28.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-27133,\"{'P': 8.0, 'S': 32.0, 'Bi': 8.0}\",\"('Bi', 'P', 'S')\",OTHERS,False\nmp-1191148,\"{'Sr': 2.0, 'Cu': 4.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Cu', 'O', 'Sr')\",OTHERS,False\nmp-1223195,\"{'La': 4.0, 'U': 2.0, 'Te': 10.0}\",\"('La', 'Te', 'U')\",OTHERS,False\nmp-1221325,\"{'Na': 2.0, 'Pt': 1.0, 'O': 3.0}\",\"('Na', 'O', 'Pt')\",OTHERS,False\nmp-28166,\"{'K': 3.0, 'O': 1.0, 'Br': 1.0}\",\"('Br', 'K', 'O')\",OTHERS,False\nmp-1211737,\"{'K': 8.0, 'Tb': 4.0, 'Cl': 20.0}\",\"('Cl', 'K', 'Tb')\",OTHERS,False\nmvc-6095,\"{'Zn': 2.0, 'Fe': 1.0, 'W': 1.0, 'O': 6.0}\",\"('Fe', 'O', 'W', 'Zn')\",OTHERS,False\nmp-569330,\"{'Ce': 8.0, 'C': 8.0, 'Br': 6.0}\",\"('Br', 'C', 'Ce')\",OTHERS,False\nmp-1222923,\"{'La': 1.0, 'Pr': 3.0, 'Mn': 4.0, 'O': 12.0}\",\"('La', 'Mn', 'O', 'Pr')\",OTHERS,False\nmp-759298,\"{'Li': 10.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1113420,\"{'Eu': 1.0, 'Cs': 2.0, 'Au': 1.0, 'Cl': 6.0}\",\"('Au', 'Cl', 'Cs', 'Eu')\",OTHERS,False\nmp-2514,\"{'Mg': 24.0, 'P': 16.0}\",\"('Mg', 'P')\",OTHERS,False\nmp-26691,\"{'Li': 6.0, 'Ni': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-753178,\"{'Li': 1.0, 'Fe': 2.0, 'C': 3.0, 'O': 9.0}\",\"('C', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-680322,\"{'Bi': 17.0, 'P': 5.0, 'Pb': 5.0, 'O': 43.0}\",\"('Bi', 'O', 'P', 'Pb')\",OTHERS,False\nmp-865015,\"{'Mn': 1.0, 'Si': 1.0, 'Rh': 2.0}\",\"('Mn', 'Rh', 'Si')\",OTHERS,False\nmp-1232361,\"{'Cs': 1.0, 'In': 1.0, 'Cu': 6.0, 'O': 8.0}\",\"('Cs', 'Cu', 'In', 'O')\",OTHERS,False\nmp-1226713,\"{'Ce': 1.0, 'Dy': 4.0, 'S': 7.0}\",\"('Ce', 'Dy', 'S')\",OTHERS,False\nmp-631661,\"{'Y': 2.0, 'Fe': 1.0, 'B': 1.0}\",\"('B', 'Fe', 'Y')\",OTHERS,False\nmp-300,\"{'Yb': 1.0, 'Pt': 3.0}\",\"('Pt', 'Yb')\",OTHERS,False\nmp-1111512,\"{'Na': 2.0, 'Sb': 1.0, 'Au': 1.0, 'F': 6.0}\",\"('Au', 'F', 'Na', 'Sb')\",OTHERS,False\nmp-568580,\"{'Na': 40.0, 'Ga': 24.0, 'Sn': 12.0}\",\"('Ga', 'Na', 'Sn')\",OTHERS,False\nmp-643074,\"{'Cs': 4.0, 'P': 4.0, 'H': 4.0, 'O': 14.0}\",\"('Cs', 'H', 'O', 'P')\",OTHERS,False\nmp-753270,\"{'Li': 2.0, 'V': 3.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-975390,\"{'Rb': 1.0, 'Ca': 3.0}\",\"('Ca', 'Rb')\",OTHERS,False\nmp-560801,\"{'Gd': 3.0, 'Al': 9.0, 'B': 12.0, 'O': 36.0}\",\"('Al', 'B', 'Gd', 'O')\",OTHERS,False\nmp-1186463,\"{'Pd': 1.0, 'S': 3.0}\",\"('Pd', 'S')\",OTHERS,False\nmp-1176417,\"{'Mn': 4.0, 'Te': 4.0, 'O': 12.0}\",\"('Mn', 'O', 'Te')\",OTHERS,False\nmp-555085,\"{'K': 2.0, 'Au': 2.0, 'N': 8.0, 'O': 24.0}\",\"('Au', 'K', 'N', 'O')\",OTHERS,False\nmp-779318,\"{'Li': 2.0, 'Cr': 4.0, 'P': 6.0, 'O': 26.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1223222,\"{'La': 4.0, 'C': 2.0, 'I': 5.0}\",\"('C', 'I', 'La')\",OTHERS,False\nmp-568716,\"{'Sr': 20.0, 'Ag': 20.0}\",\"('Ag', 'Sr')\",OTHERS,False\nmp-557693,\"{'Cs': 8.0, 'Zn': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Cs', 'O', 'P', 'Zn')\",OTHERS,False\nmp-22687,\"{'In': 4.0, 'Ba': 1.0}\",\"('Ba', 'In')\",OTHERS,False\nmp-28341,\"{'Li': 4.0, 'Cl': 16.0, 'Ga': 4.0}\",\"('Cl', 'Ga', 'Li')\",OTHERS,False\nmvc-8344,\"{'Mg': 2.0, 'Mn': 4.0, 'O': 10.0}\",\"('Mg', 'Mn', 'O')\",OTHERS,False\nmp-1186320,\"{'Np': 1.0, 'Hg': 1.0, 'O': 3.0}\",\"('Hg', 'Np', 'O')\",OTHERS,False\nmp-1214561,\"{'Ba': 2.0, 'Tb': 1.0, 'W': 1.0, 'O': 6.0}\",\"('Ba', 'O', 'Tb', 'W')\",OTHERS,False\nmp-752663,\"{'Li': 8.0, 'Fe': 4.0, 'B': 4.0, 'O': 16.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1073794,\"{'Mg': 6.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-984353,\"{'As': 2.0, 'Au': 6.0}\",\"('As', 'Au')\",OTHERS,False\nmp-1194892,\"{'Si': 2.0, 'P': 8.0, 'Pd': 2.0, 'Pb': 2.0, 'O': 28.0}\",\"('O', 'P', 'Pb', 'Pd', 'Si')\",OTHERS,False\nmp-707342,\"{'Zn': 2.0, 'H': 36.0, 'Ru': 4.0, 'Br': 14.0, 'N': 12.0}\",\"('Br', 'H', 'N', 'Ru', 'Zn')\",OTHERS,False\nmp-1093916,\"{'Hf': 1.0, 'Zr': 1.0, 'Co': 2.0}\",\"('Co', 'Hf', 'Zr')\",OTHERS,False\nmp-680695,\"{'Ce': 6.0, 'B': 4.0, 'Cl': 6.0, 'O': 12.0}\",\"('B', 'Ce', 'Cl', 'O')\",OTHERS,False\nmp-686526,\"{'Na': 4.0, 'Ca': 4.0, 'Al': 4.0, 'Si': 8.0, 'O': 28.0}\",\"('Al', 'Ca', 'Na', 'O', 'Si')\",OTHERS,False\nmp-16932,\"{'Th': 2.0, 'Co': 17.0}\",\"('Co', 'Th')\",OTHERS,False\nmp-696993,\"{'Sn': 8.0, 'H': 8.0, 'S': 4.0, 'O': 20.0, 'F': 8.0}\",\"('F', 'H', 'O', 'S', 'Sn')\",OTHERS,False\nmp-1245621,\"{'Fe': 10.0, 'Ge': 4.0, 'N': 12.0}\",\"('Fe', 'Ge', 'N')\",OTHERS,False\nmvc-1072,\"{'Ca': 4.0, 'Cu': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Ca', 'Cu', 'O', 'P')\",OTHERS,False\nmp-764057,\"{'V': 6.0, 'O': 12.0, 'F': 6.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-13385,\"{'P': 4.0, 'Se': 12.0, 'Ag': 2.0, 'Tm': 2.0}\",\"('Ag', 'P', 'Se', 'Tm')\",OTHERS,False\nmp-773515,\"{'Te': 3.0, 'W': 1.0, 'O': 12.0}\",\"('O', 'Te', 'W')\",OTHERS,False\nmp-13918,\"{'Ge': 2.0, 'Sr': 1.0, 'Au': 2.0}\",\"('Au', 'Ge', 'Sr')\",OTHERS,False\nmvc-1098,\"{'Ba': 2.0, 'V': 3.0, 'O': 8.0}\",\"('Ba', 'O', 'V')\",OTHERS,False\nmp-28989,\"{'Li': 10.0, 'N': 3.0, 'Br': 1.0}\",\"('Br', 'Li', 'N')\",OTHERS,False\nmp-1103877,\"{'Nd': 6.0, 'Ga': 2.0, 'Co': 6.0}\",\"('Co', 'Ga', 'Nd')\",OTHERS,False\nmp-6345,\"{'O': 18.0, 'Ru': 4.0, 'Ba': 6.0, 'Tb': 2.0}\",\"('Ba', 'O', 'Ru', 'Tb')\",OTHERS,False\nmp-510113,\"{'Bi': 8.0, 'Mn': 10.0, 'Ni': 4.0}\",\"('Bi', 'Mn', 'Ni')\",OTHERS,False\nmvc-2664,\"{'Mg': 4.0, 'Ta': 4.0, 'Fe': 2.0, 'O': 16.0}\",\"('Fe', 'Mg', 'O', 'Ta')\",OTHERS,False\nmp-1207719,\"{'Yb': 12.0, 'Ta': 8.0, 'Al': 86.0}\",\"('Al', 'Ta', 'Yb')\",OTHERS,False\nmp-682548,\"{'Cs': 5.0, 'Te': 3.0, 'H': 4.0, 'N': 1.0, 'Cl': 18.0}\",\"('Cl', 'Cs', 'H', 'N', 'Te')\",OTHERS,False\nmp-1190813,\"{'Cs': 4.0, 'U': 2.0, 'Pt': 6.0, 'Se': 12.0}\",\"('Cs', 'Pt', 'Se', 'U')\",OTHERS,False\nmp-1096504,\"{'Sr': 2.0, 'Li': 1.0, 'Pd': 1.0}\",\"('Li', 'Pd', 'Sr')\",OTHERS,False\nmvc-4008,\"{'Zn': 4.0, 'Ni': 4.0, 'O': 12.0}\",\"('Ni', 'O', 'Zn')\",OTHERS,False\nmp-766243,\"{'Y': 8.0, 'Zr': 8.0, 'O': 24.0}\",\"('O', 'Y', 'Zr')\",OTHERS,False\nmp-26692,\"{'Li': 4.0, 'Ni': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-759092,\"{'Li': 12.0, 'Fe': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1104197,\"{'Ba': 1.0, 'Yb': 1.0, 'Fe': 4.0, 'O': 7.0}\",\"('Ba', 'Fe', 'O', 'Yb')\",OTHERS,False\nmp-21515,\"{'S': 8.0, 'Fe': 6.0}\",\"('Fe', 'S')\",OTHERS,False\nmp-1006256,\"{'Ce': 1.0, 'Y': 1.0, 'Tl': 2.0}\",\"('Ce', 'Tl', 'Y')\",OTHERS,False\nmp-1188061,\"{'Zr': 6.0, 'Sn': 2.0}\",\"('Sn', 'Zr')\",OTHERS,False\nmp-1205648,\"{'Rb': 4.0, 'Ni': 2.0, 'As': 4.0}\",\"('As', 'Ni', 'Rb')\",OTHERS,False\nmp-30097,\"{'Cl': 16.0, 'Te': 14.0, 'Bi': 4.0}\",\"('Bi', 'Cl', 'Te')\",OTHERS,False\nmp-768522,\"{'La': 8.0, 'Ce': 8.0, 'O': 28.0}\",\"('Ce', 'La', 'O')\",OTHERS,False\nmp-1177753,\"{'Li': 6.0, 'Fe': 4.0, 'O': 12.0}\",\"('Fe', 'Li', 'O')\",OTHERS,False\nmp-1244909,\"{'Al': 40.0, 'O': 60.0}\",\"('Al', 'O')\",OTHERS,False\nmp-1189350,\"{'La': 10.0, 'As': 2.0, 'Pb': 6.0}\",\"('As', 'La', 'Pb')\",OTHERS,False\nmp-1080340,\"{'Ce': 2.0, 'Se': 4.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-780005,\"{'Li': 8.0, 'Mn': 2.0, 'V': 6.0, 'P': 16.0, 'O': 56.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-771026,\"{'Na': 4.0, 'B': 2.0, 'Sb': 2.0, 'S': 2.0, 'O': 14.0}\",\"('B', 'Na', 'O', 'S', 'Sb')\",OTHERS,False\nmp-1075098,\"{'Mg': 6.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-626219,\"{'H': 20.0, 'Cl': 4.0, 'O': 24.0}\",\"('Cl', 'H', 'O')\",OTHERS,False\nmp-1097373,\"{'Sc': 1.0, 'In': 1.0, 'Hg': 2.0}\",\"('Hg', 'In', 'Sc')\",OTHERS,False\nmp-9942,\"{'S': 4.0, 'Ti': 2.0, 'Fe': 1.0}\",\"('Fe', 'S', 'Ti')\",OTHERS,False\nmp-1185069,\"{'La': 1.0, 'Lu': 1.0, 'Tl': 2.0}\",\"('La', 'Lu', 'Tl')\",OTHERS,False\nmp-1184253,\"{'Er': 1.0, 'Tm': 1.0, 'Ag': 2.0}\",\"('Ag', 'Er', 'Tm')\",OTHERS,False\nmp-1212971,\"{'Dy': 2.0, 'Be': 2.0, 'N': 2.0, 'F': 12.0}\",\"('Be', 'Dy', 'F', 'N')\",OTHERS,False\nmp-1074201,\"{'Mg': 8.0, 'Si': 14.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1095140,\"{'Er': 4.0, 'Co': 2.0, 'Ge': 4.0}\",\"('Co', 'Er', 'Ge')\",OTHERS,False\nmp-1200829,\"{'Na': 4.0, 'Sb': 4.0, 'F': 24.0}\",\"('F', 'Na', 'Sb')\",OTHERS,False\nmp-1197782,\"{'K': 6.0, 'V': 10.0, 'Te': 8.0, 'H': 16.0, 'O': 48.0}\",\"('H', 'K', 'O', 'Te', 'V')\",OTHERS,False\nmp-764723,\"{'Li': 2.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1095131,\"{'Sr': 1.0, 'Ta': 2.0, 'O': 7.0}\",\"('O', 'Sr', 'Ta')\",OTHERS,False\nmp-1097388,\"{'Y': 1.0, 'Zn': 1.0, 'Pd': 2.0}\",\"('Pd', 'Y', 'Zn')\",OTHERS,False\nmp-1672,\"{'S': 1.0, 'Ca': 1.0}\",\"('Ca', 'S')\",OTHERS,False\nmp-1175066,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-23297,\"{'F': 6.0, 'Br': 2.0}\",\"('Br', 'F')\",OTHERS,False\nmp-1197684,\"{'Na': 20.0, 'Al': 4.0, 'H': 32.0, 'O': 32.0}\",\"('Al', 'H', 'Na', 'O')\",OTHERS,False\nmp-16455,\"{'S': 10.0, 'Zn': 2.0, 'Ba': 2.0, 'Nd': 4.0}\",\"('Ba', 'Nd', 'S', 'Zn')\",OTHERS,False\nmp-1198676,\"{'Cs': 16.0, 'Fe': 4.0, 'O': 14.0}\",\"('Cs', 'Fe', 'O')\",OTHERS,False\nmp-770745,\"{'Li': 8.0, 'Cr': 8.0, 'O': 28.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-760396,\"{'Ta': 2.0, 'Al': 2.0, 'O': 8.0}\",\"('Al', 'O', 'Ta')\",OTHERS,False\nmp-757516,\"{'Li': 4.0, 'Ni': 16.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1193512,\"{'Cu': 3.0, 'I': 6.0, 'O': 20.0}\",\"('Cu', 'I', 'O')\",OTHERS,False\nmp-1246055,\"{'Fe': 2.0, 'C': 12.0, 'N': 18.0}\",\"('C', 'Fe', 'N')\",OTHERS,False\nmp-20205,\"{'Yb': 8.0, 'Cu': 8.0, 'O': 20.0}\",\"('Cu', 'O', 'Yb')\",OTHERS,False\nmp-1095701,\"{'Mg': 30.0, 'Sn': 1.0, 'C': 1.0, 'O': 32.0}\",\"('C', 'Mg', 'O', 'Sn')\",OTHERS,False\nmp-1209321,\"{'Rb': 8.0, 'O': 16.0, 'F': 8.0}\",\"('F', 'O', 'Rb')\",OTHERS,False\nmp-1194932,\"{'Sm': 12.0, 'Se': 6.0, 'O': 6.0, 'F': 12.0}\",\"('F', 'O', 'Se', 'Sm')\",OTHERS,False\nmp-1079462,\"{'Sm': 2.0, 'Ge': 4.0, 'Pt': 4.0}\",\"('Ge', 'Pt', 'Sm')\",OTHERS,False\nmp-976339,\"{'Li': 1.0, 'Tm': 2.0, 'In': 1.0}\",\"('In', 'Li', 'Tm')\",OTHERS,False\nmp-862762,\"{'Pr': 12.0, 'Co': 4.0}\",\"('Co', 'Pr')\",OTHERS,False\nmp-760823,\"{'Li': 22.0, 'V': 8.0, 'F': 48.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1187498,\"{'Tl': 3.0, 'Zn': 1.0}\",\"('Tl', 'Zn')\",OTHERS,False\nmp-569898,\"{'Ce': 3.0, 'Ga': 1.0, 'Br': 3.0}\",\"('Br', 'Ce', 'Ga')\",OTHERS,False\nmp-1229238,\"{'Ba': 10.0, 'Gd': 4.0, 'Y': 1.0, 'Cu': 15.0, 'O': 35.0}\",\"('Ba', 'Cu', 'Gd', 'O', 'Y')\",OTHERS,False\nmp-1245543,\"{'Ti': 24.0, 'C': 24.0, 'N': 56.0}\",\"('C', 'N', 'Ti')\",OTHERS,False\nmp-984772,\"{'Ce': 3.0, 'Zn': 1.0}\",\"('Ce', 'Zn')\",OTHERS,False\nmp-1185862,\"{'Mg': 1.0, 'F': 3.0}\",\"('F', 'Mg')\",OTHERS,False\nmp-570900,\"{'K': 16.0, 'Sn': 36.0}\",\"('K', 'Sn')\",OTHERS,False\nmp-1094375,\"{'Y': 10.0, 'Mg': 2.0}\",\"('Mg', 'Y')\",OTHERS,False\nmp-1213845,\"{'Co': 2.0, 'Cu': 4.0, 'Ge': 2.0, 'Se': 8.0}\",\"('Co', 'Cu', 'Ge', 'Se')\",OTHERS,False\nmp-1246723,\"{'Sm': 2.0, 'Mg': 2.0, 'Cr': 2.0, 'S': 8.0}\",\"('Cr', 'Mg', 'S', 'Sm')\",OTHERS,False\nmvc-5049,\"{'Mg': 4.0, 'V': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Mg', 'O', 'V', 'W')\",OTHERS,False\nmp-1186143,\"{'Na': 1.0, 'Lu': 3.0}\",\"('Lu', 'Na')\",OTHERS,False\nmp-867761,\"{'Sc': 2.0, 'Co': 1.0, 'Ru': 1.0}\",\"('Co', 'Ru', 'Sc')\",OTHERS,False\nmp-1215347,\"{'Zr': 6.0, 'Co': 2.0, 'O': 1.0}\",\"('Co', 'O', 'Zr')\",OTHERS,False\nmp-1006367,\"{'Ce': 8.0, 'Hf': 4.0, 'Se': 20.0}\",\"('Ce', 'Hf', 'Se')\",OTHERS,False\nmp-1005829,\"{'Sm': 2.0, 'Mn': 12.0, 'P': 7.0}\",\"('Mn', 'P', 'Sm')\",OTHERS,False\nmp-1207518,\"{'Yb': 4.0, 'Rh': 4.0, 'O': 12.0}\",\"('O', 'Rh', 'Yb')\",OTHERS,False\nmp-601820,\"{'Fe': 3.0, 'Co': 1.0}\",\"('Co', 'Fe')\",OTHERS,False\nmp-1079700,\"{'Dy': 6.0, 'Co': 1.0, 'Te': 2.0}\",\"('Co', 'Dy', 'Te')\",OTHERS,False\nmp-1175544,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-758091,\"{'Li': 2.0, 'V': 2.0, 'F': 8.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1076488,\"{'Sr': 24.0, 'Ca': 8.0, 'Fe': 12.0, 'Co': 20.0, 'O': 80.0}\",\"('Ca', 'Co', 'Fe', 'O', 'Sr')\",OTHERS,False\nmvc-6059,\"{'Zn': 2.0, 'Cu': 4.0, 'O': 8.0}\",\"('Cu', 'O', 'Zn')\",OTHERS,False\nmp-1177982,\"{'Li': 2.0, 'Fe': 1.0, 'B': 2.0, 'O': 6.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-680614,\"{'Yb': 32.0, 'Li': 4.0, 'Ge': 52.0}\",\"('Ge', 'Li', 'Yb')\",OTHERS,False\nmp-460,\"{'Zn': 1.0, 'Pr': 1.0}\",\"('Pr', 'Zn')\",OTHERS,False\nmp-722342,\"{'Na': 4.0, 'Ca': 8.0, 'B': 36.0, 'H': 32.0, 'O': 80.0}\",\"('B', 'Ca', 'H', 'Na', 'O')\",OTHERS,False\nmp-735491,\"{'Ca': 1.0, 'Mg': 2.0, 'H': 24.0, 'Cl': 6.0, 'O': 12.0}\",\"('Ca', 'Cl', 'H', 'Mg', 'O')\",OTHERS,False\nmp-1223246,\"{'La': 2.0, 'Ga': 1.0, 'Ni': 1.0, 'O': 6.0}\",\"('Ga', 'La', 'Ni', 'O')\",OTHERS,False\nmp-1219249,\"{'Si': 3.0, 'P': 3.0, 'Ir': 1.0}\",\"('Ir', 'P', 'Si')\",OTHERS,False\nmp-1185514,\"{'Lu': 1.0, 'Ge': 1.0, 'O': 3.0}\",\"('Ge', 'Lu', 'O')\",OTHERS,False\nmp-1187545,\"{'Tl': 3.0, 'Ag': 1.0}\",\"('Ag', 'Tl')\",OTHERS,False\nmp-695708,\"{'Ba': 14.0, 'Si': 2.0, 'B': 6.0, 'N': 2.0, 'O': 26.0}\",\"('B', 'Ba', 'N', 'O', 'Si')\",OTHERS,False\nmp-780778,\"{'Li': 4.0, 'Mn': 14.0, 'P': 16.0, 'O': 56.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-667288,\"{'K': 16.0, 'P': 32.0, 'Pb': 8.0, 'O': 96.0}\",\"('K', 'O', 'P', 'Pb')\",OTHERS,False\nmp-753723,\"{'Li': 4.0, 'Mn': 4.0, 'O': 2.0, 'F': 12.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1013561,\"{'Sr': 3.0, 'Sb': 1.0, 'As': 1.0}\",\"('As', 'Sb', 'Sr')\",OTHERS,False\nmp-1220780,\"{'Na': 1.0, 'La': 1.0, 'Nb': 4.0, 'O': 12.0}\",\"('La', 'Na', 'Nb', 'O')\",OTHERS,False\nmp-1220298,\"{'Ni': 17.0, 'Ge': 4.0, 'Se': 4.0}\",\"('Ge', 'Ni', 'Se')\",OTHERS,False\nmp-1189374,\"{'Ho': 12.0, 'Ga': 2.0, 'Ni': 4.0}\",\"('Ga', 'Ho', 'Ni')\",OTHERS,False\nmp-17849,\"{'O': 1.0, 'Fe': 16.0, 'Ho': 6.0}\",\"('Fe', 'Ho', 'O')\",OTHERS,False\nmp-1205212,\"{'B': 128.0, 'F': 192.0}\",\"('B', 'F')\",OTHERS,False\nmp-755821,\"{'Li': 5.0, 'Cu': 1.0, 'P': 2.0, 'O': 8.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-757073,\"{'Ba': 4.0, 'Li': 1.0, 'Y': 2.0, 'Cu': 5.0, 'O': 14.0}\",\"('Ba', 'Cu', 'Li', 'O', 'Y')\",OTHERS,False\nmp-1207212,\"{'Li': 1.0, 'Hf': 1.0, 'S': 2.0}\",\"('Hf', 'Li', 'S')\",OTHERS,False\nmp-1219172,\"{'Sm': 2.0, 'Sb': 1.0, 'S': 1.0}\",\"('S', 'Sb', 'Sm')\",OTHERS,False\nmp-569207,\"{'K': 4.0, 'Os': 2.0, 'N': 2.0, 'Cl': 10.0}\",\"('Cl', 'K', 'N', 'Os')\",OTHERS,False\nmp-1220985,\"{'Nd': 10.0, 'Ta': 30.0, 'O': 90.0}\",\"('Nd', 'O', 'Ta')\",OTHERS,False\nmp-780275,\"{'Ag': 2.0, 'B': 2.0, 'O': 6.0}\",\"('Ag', 'B', 'O')\",OTHERS,False\nmp-1213452,\"{'H': 20.0, 'Pb': 4.0, 'C': 8.0, 'S': 4.0, 'I': 4.0, 'N': 24.0}\",\"('C', 'H', 'I', 'N', 'Pb', 'S')\",OTHERS,False\nmp-8001,\"{'Li': 1.0, 'O': 2.0, 'Al': 1.0}\",\"('Al', 'Li', 'O')\",OTHERS,False\nmp-1173595,\"{'Sr': 14.0, 'Nb': 6.0, 'O': 29.0}\",\"('Nb', 'O', 'Sr')\",OTHERS,False\nmp-505343,\"{'U': 2.0, 'Co': 8.0, 'B': 8.0}\",\"('B', 'Co', 'U')\",OTHERS,False\nmp-1071904,\"{'Pr': 2.0, 'Cu': 4.0}\",\"('Cu', 'Pr')\",OTHERS,False\nmp-761193,\"{'Li': 2.0, 'Cu': 8.0, 'P': 6.0, 'O': 24.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-865234,\"{'Ta': 1.0, 'Zn': 1.0, 'Ru': 2.0}\",\"('Ru', 'Ta', 'Zn')\",OTHERS,False\nmp-1035359,\"{'Mg': 14.0, 'Nb': 1.0, 'Cu': 1.0, 'O': 16.0}\",\"('Cu', 'Mg', 'Nb', 'O')\",OTHERS,False\nmp-1178636,\"{'Zr': 8.0, 'N': 16.0, 'F': 48.0}\",\"('F', 'N', 'Zr')\",OTHERS,False\nmp-1229224,\"{'Al': 2.0, 'B': 4.0, 'Pb': 12.0, 'O': 14.0, 'F': 14.0}\",\"('Al', 'B', 'F', 'O', 'Pb')\",OTHERS,False\nmp-36641,\"{'Cd': 1.0, 'Ga': 6.0, 'Te': 10.0}\",\"('Cd', 'Ga', 'Te')\",OTHERS,False\nmp-676296,\"{'U': 1.0, 'Bi': 4.0, 'O': 8.0}\",\"('Bi', 'O', 'U')\",OTHERS,False\nmp-1212634,\"{'Er': 4.0, 'Te': 4.0, 'As': 4.0}\",\"('As', 'Er', 'Te')\",OTHERS,False\nmp-24416,\"{'H': 2.0, 'Mn': 2.0}\",\"('H', 'Mn')\",OTHERS,False\nmp-760378,\"{'Li': 2.0, 'Ti': 4.0, 'O': 8.0}\",\"('Li', 'O', 'Ti')\",OTHERS,False\nmp-18474,\"{'Ge': 2.0, 'Se': 12.0, 'Ag': 16.0}\",\"('Ag', 'Ge', 'Se')\",OTHERS,False\nmp-755773,\"{'Mn': 6.0, 'O': 7.0, 'F': 5.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-865361,\"{'Tm': 2.0, 'Mg': 1.0, 'Os': 1.0}\",\"('Mg', 'Os', 'Tm')\",OTHERS,False\nmp-1111384,\"{'K': 3.0, 'Pr': 1.0, 'Cl': 6.0}\",\"('Cl', 'K', 'Pr')\",OTHERS,False\nmp-861905,\"{'Li': 1.0, 'Bi': 1.0, 'Pd': 2.0}\",\"('Bi', 'Li', 'Pd')\",OTHERS,False\nmp-1217074,\"{'Ti': 2.0, 'H': 1.0, 'C': 1.0}\",\"('C', 'H', 'Ti')\",OTHERS,False\nmp-1250217,\"{'Zn': 6.0, 'Cu': 4.0, 'Si': 8.0, 'O': 28.0}\",\"('Cu', 'O', 'Si', 'Zn')\",OTHERS,False\nmp-1219194,\"{'Sm': 12.0, 'Ta': 4.0, 'Ti': 8.0, 'O': 42.0}\",\"('O', 'Sm', 'Ta', 'Ti')\",OTHERS,False\nmp-1075975,\"{'Eu': 1.0, 'Co': 1.0, 'O': 3.0}\",\"('Co', 'Eu', 'O')\",OTHERS,False\nmp-1228231,\"{'Ba': 6.0, 'Ti': 2.0, 'Fe': 4.0, 'O': 18.0}\",\"('Ba', 'Fe', 'O', 'Ti')\",OTHERS,False\nmp-1014910,\"{'Cr': 4.0, 'N': 8.0}\",\"('Cr', 'N')\",OTHERS,False\nmp-736122,\"{'Ba': 18.0, 'Ca': 6.0, 'Zr': 6.0, 'W': 6.0, 'O': 54.0}\",\"('Ba', 'Ca', 'O', 'W', 'Zr')\",OTHERS,False\nmp-1080442,\"{'U': 3.0, 'Ga': 3.0, 'Pd': 3.0}\",\"('Ga', 'Pd', 'U')\",OTHERS,False\nmp-1228558,\"{'Al': 1.0, 'Si': 5.0, 'C': 2.0, 'O': 12.0}\",\"('Al', 'C', 'O', 'Si')\",OTHERS,False\nmp-558203,\"{'Si': 32.0, 'O': 64.0}\",\"('O', 'Si')\",OTHERS,False\nmp-744517,\"{'Li': 8.0, 'Mo': 8.0, 'H': 48.0, 'N': 8.0, 'O': 40.0}\",\"('H', 'Li', 'Mo', 'N', 'O')\",OTHERS,False\nmp-1220796,\"{'Na': 10.0, 'Sr': 2.0, 'Nb': 2.0, 'As': 8.0}\",\"('As', 'Na', 'Nb', 'Sr')\",OTHERS,False\nmp-1110992,\"{'Na': 2.0, 'Tl': 1.0, 'Cu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cu', 'Na', 'Tl')\",OTHERS,False\nmp-1200509,\"{'Mn': 1.0, 'H': 36.0, 'C': 60.0, 'N': 12.0}\",\"('C', 'H', 'Mn', 'N')\",OTHERS,False\nmp-1187007,\"{'Si': 1.0, 'Pb': 3.0}\",\"('Pb', 'Si')\",OTHERS,False\nmp-1224945,\"{'Fe': 1.0, 'Cu': 1.0}\",\"('Cu', 'Fe')\",OTHERS,False\nmp-1075570,\"{'Mg': 10.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-545512,\"{'O': 2.0, 'Ca': 2.0}\",\"('Ca', 'O')\",OTHERS,False\nmp-1176011,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1103472,\"{'Na': 2.0, 'U': 1.0, 'F': 8.0}\",\"('F', 'Na', 'U')\",OTHERS,False\nmp-1014230,\"{'Ti': 1.0, 'Zn': 1.0}\",\"('Ti', 'Zn')\",OTHERS,False\nmp-555962,\"{'Li': 4.0, 'Mo': 4.0, 'As': 4.0, 'O': 24.0}\",\"('As', 'Li', 'Mo', 'O')\",OTHERS,False\nmp-774712,\"{'Li': 2.0, 'Cu': 2.0, 'S': 2.0}\",\"('Cu', 'Li', 'S')\",OTHERS,False\nmp-29276,\"{'O': 34.0, 'P': 12.0, 'Cd': 4.0}\",\"('Cd', 'O', 'P')\",OTHERS,False\nmp-27439,\"{'O': 2.0, 'I': 2.0, 'Tm': 2.0}\",\"('I', 'O', 'Tm')\",OTHERS,False\nmvc-7669,\"{'Ba': 1.0, 'Y': 1.0, 'Mn': 1.0, 'Cu': 1.0, 'O': 5.0}\",\"('Ba', 'Cu', 'Mn', 'O', 'Y')\",OTHERS,False\nmp-540948,\"{'Zn': 2.0, 'Ni': 2.0, 'P': 8.0, 'O': 24.0}\",\"('Ni', 'O', 'P', 'Zn')\",OTHERS,False\nmp-6075,\"{'Li': 2.0, 'B': 10.0, 'O': 20.0, 'Ba': 4.0}\",\"('B', 'Ba', 'Li', 'O')\",OTHERS,False\nmvc-13558,\"{'Fe': 4.0, 'S': 8.0}\",\"('Fe', 'S')\",OTHERS,False\nmp-18348,\"{'O': 28.0, 'P': 8.0, 'K': 4.0, 'Ga': 4.0}\",\"('Ga', 'K', 'O', 'P')\",OTHERS,False\nmp-555439,\"{'Cs': 2.0, 'Li': 6.0, 'F': 8.0}\",\"('Cs', 'F', 'Li')\",OTHERS,False\nmp-1245934,\"{'Cd': 2.0, 'C': 16.0, 'N': 12.0}\",\"('C', 'Cd', 'N')\",OTHERS,False\nmp-1092278,\"{'Mn': 2.0, 'B': 4.0, 'Mo': 4.0}\",\"('B', 'Mn', 'Mo')\",OTHERS,False\nmp-7719,\"{'O': 16.0, 'Na': 2.0, 'S': 4.0, 'Tm': 2.0}\",\"('Na', 'O', 'S', 'Tm')\",OTHERS,False\nmp-18962,\"{'O': 6.0, 'Ca': 1.0, 'Sr': 2.0, 'Mo': 1.0}\",\"('Ca', 'Mo', 'O', 'Sr')\",OTHERS,False\nmp-1238791,\"{'Cr': 4.0, 'Cu': 2.0, 'S': 8.0}\",\"('Cr', 'Cu', 'S')\",OTHERS,False\nmp-1176421,\"{'Mn': 2.0, 'Zn': 8.0, 'O': 10.0}\",\"('Mn', 'O', 'Zn')\",OTHERS,False\nmp-1253743,\"{'Ca': 4.0, 'Ti': 2.0, 'Al': 2.0, 'O': 10.0}\",\"('Al', 'Ca', 'O', 'Ti')\",OTHERS,False\nmp-1245401,\"{'Mn': 1.0, 'Cr': 1.0, 'N': 2.0}\",\"('Cr', 'Mn', 'N')\",OTHERS,False\nmp-772613,\"{'Li': 4.0, 'Cr': 6.0, 'Ni': 2.0, 'O': 16.0}\",\"('Cr', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-1114453,\"{'Rb': 2.0, 'Na': 1.0, 'Pr': 1.0, 'I': 6.0}\",\"('I', 'Na', 'Pr', 'Rb')\",OTHERS,False\nmp-1245337,\"{'Si': 40.0, 'Ni': 16.0, 'N': 64.0}\",\"('N', 'Ni', 'Si')\",OTHERS,False\nmp-753509,\"{'Li': 3.0, 'Mn': 1.0, 'O': 1.0, 'F': 4.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1112902,\"{'Cs': 2.0, 'Hg': 1.0, 'Sb': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Hg', 'Sb')\",OTHERS,False\nmp-1032862,\"{'Mg': 6.0, 'Mn': 1.0, 'Fe': 1.0, 'O': 8.0}\",\"('Fe', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-10740,{'Pa': 1.0},\"('Pa',)\",OTHERS,False\nmp-685705,\"{'Mn': 17.0, 'Nb': 31.0, 'N': 48.0}\",\"('Mn', 'N', 'Nb')\",OTHERS,False\nmp-768177,\"{'Li': 8.0, 'V': 4.0, 'B': 4.0, 'O': 16.0}\",\"('B', 'Li', 'O', 'V')\",OTHERS,False\nmp-1096162,\"{'Mg': 2.0, 'Cd': 1.0, 'Ga': 1.0}\",\"('Cd', 'Ga', 'Mg')\",OTHERS,False\nmp-560409,\"{'P': 24.0, 'S': 24.0, 'N': 48.0, 'F': 40.0}\",\"('F', 'N', 'P', 'S')\",OTHERS,False\nmp-1025034,\"{'Th': 1.0, 'Ni': 2.0, 'B': 2.0, 'C': 1.0}\",\"('B', 'C', 'Ni', 'Th')\",OTHERS,False\nmp-1226011,\"{'Co': 1.0, 'Si': 4.0, 'Ni': 3.0}\",\"('Co', 'Ni', 'Si')\",OTHERS,False\nmvc-9211,\"{'Ti': 2.0, 'Zn': 2.0, 'Ni': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Ni', 'O', 'P', 'Ti', 'Zn')\",OTHERS,False\nmp-1229165,\"{'Ag': 3.0, 'Bi': 7.0, 'S': 12.0}\",\"('Ag', 'Bi', 'S')\",OTHERS,False\nmp-13156,\"{'Ag': 2.0, 'Hf': 2.0}\",\"('Ag', 'Hf')\",OTHERS,False\nmp-1173858,\"{'Na': 7.0, 'Sr': 6.0, 'Nd': 7.0, 'Ti': 20.0, 'O': 60.0}\",\"('Na', 'Nd', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1147677,\"{'Ca': 1.0, 'Cu': 6.0, 'O': 8.0}\",\"('Ca', 'Cu', 'O')\",OTHERS,False\nmp-1103519,\"{'K': 4.0, 'Cu': 4.0, 'O': 4.0}\",\"('Cu', 'K', 'O')\",OTHERS,False\nmp-1104636,\"{'Er': 2.0, 'Al': 6.0, 'C': 6.0}\",\"('Al', 'C', 'Er')\",OTHERS,False\nmp-772436,\"{'Li': 16.0, 'Al': 8.0, 'Fe': 8.0, 'O': 32.0}\",\"('Al', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1078698,\"{'Zr': 2.0, 'Cu': 2.0, 'Ge': 2.0, 'As': 2.0}\",\"('As', 'Cu', 'Ge', 'Zr')\",OTHERS,False\nmp-1211200,\"{'Mg': 2.0, 'U': 4.0, 'P': 4.0, 'H': 40.0, 'O': 44.0}\",\"('H', 'Mg', 'O', 'P', 'U')\",OTHERS,False\nmvc-6262,\"{'Mg': 4.0, 'Bi': 8.0, 'O': 16.0}\",\"('Bi', 'Mg', 'O')\",OTHERS,False\nmvc-4222,\"{'Ge': 12.0, 'Te': 8.0, 'O': 48.0}\",\"('Ge', 'O', 'Te')\",OTHERS,False\nmp-733,\"{'O': 6.0, 'Ge': 3.0}\",\"('Ge', 'O')\",OTHERS,False\nmp-1194955,\"{'Na': 6.0, 'Gd': 2.0, 'C': 6.0, 'O': 18.0}\",\"('C', 'Gd', 'Na', 'O')\",OTHERS,False\nmp-780360,\"{'Na': 32.0, 'Gd': 8.0, 'O': 28.0}\",\"('Gd', 'Na', 'O')\",OTHERS,False\nmp-3419,\"{'F': 8.0, 'Rb': 2.0, 'Au': 2.0}\",\"('Au', 'F', 'Rb')\",OTHERS,False\nmp-775805,\"{'Zr': 8.0, 'N': 8.0, 'O': 4.0}\",\"('N', 'O', 'Zr')\",OTHERS,False\nmp-781594,\"{'Li': 2.0, 'Mn': 6.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1065668,\"{'Gd': 1.0, 'Ni': 1.0, 'C': 2.0}\",\"('C', 'Gd', 'Ni')\",OTHERS,False\nmp-33581,\"{'Ba': 9.0, 'Nb': 10.0, 'O': 30.0}\",\"('Ba', 'Nb', 'O')\",OTHERS,False\nmp-1221677,\"{'Mn': 1.0, 'H': 6.0, 'N': 2.0, 'Cl': 2.0}\",\"('Cl', 'H', 'Mn', 'N')\",OTHERS,False\nmp-12838,\"{'Si': 6.0, 'Fe': 2.0, 'Tm': 6.0}\",\"('Fe', 'Si', 'Tm')\",OTHERS,False\nmp-580539,\"{'Gd': 3.0, 'Al': 1.0, 'C': 1.0}\",\"('Al', 'C', 'Gd')\",OTHERS,False\nmp-1225045,\"{'Er': 2.0, 'Al': 3.0, 'Co': 1.0}\",\"('Al', 'Co', 'Er')\",OTHERS,False\nmp-12243,\"{'F': 14.0, 'Si': 2.0, 'Rb': 6.0}\",\"('F', 'Rb', 'Si')\",OTHERS,False\nmp-1194349,\"{'Nb': 12.0, 'Ni': 12.0, 'C': 4.0}\",\"('C', 'Nb', 'Ni')\",OTHERS,False\nmp-975079,\"{'Mn': 2.0, 'Zn': 6.0}\",\"('Mn', 'Zn')\",OTHERS,False\nmp-1192447,\"{'Nd': 6.0, 'Mg': 23.0, 'C': 1.0}\",\"('C', 'Mg', 'Nd')\",OTHERS,False\nmp-14091,\"{'Al': 2.0, 'Se': 4.0, 'Ag': 2.0}\",\"('Ag', 'Al', 'Se')\",OTHERS,False\nmp-1186120,\"{'Np': 1.0, 'Co': 3.0}\",\"('Co', 'Np')\",OTHERS,False\nmp-768399,\"{'Ba': 6.0, 'Y': 4.0, 'Br': 24.0}\",\"('Ba', 'Br', 'Y')\",OTHERS,False\nmp-759281,\"{'Li': 12.0, 'Fe': 12.0, 'Si': 12.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-722369,\"{'Na': 12.0, 'B': 20.0, 'H': 8.0, 'O': 40.0}\",\"('B', 'H', 'Na', 'O')\",OTHERS,False\nmp-540550,\"{'Na': 4.0, 'Cl': 4.0, 'O': 20.0, 'H': 8.0}\",\"('Cl', 'H', 'Na', 'O')\",OTHERS,False\nmp-1228892,\"{'Cs': 2.0, 'Cr': 2.0, 'Cu': 2.0, 'F': 12.0}\",\"('Cr', 'Cs', 'Cu', 'F')\",OTHERS,False\nmp-759320,\"{'Li': 9.0, 'Mn': 9.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1205384,\"{'La': 4.0, 'Te': 8.0}\",\"('La', 'Te')\",OTHERS,False\nmp-510547,\"{'Cu': 8.0, 'Cl': 4.0, 'O': 12.0, 'H': 12.0}\",\"('Cl', 'Cu', 'H', 'O')\",OTHERS,False\nmp-8248,\"{'O': 6.0, 'Rb': 4.0, 'Te': 2.0}\",\"('O', 'Rb', 'Te')\",OTHERS,False\nmp-1120786,\"{'V': 2.0, 'Bi': 4.0}\",\"('Bi', 'V')\",OTHERS,False\nmp-1209066,\"{'Sb': 4.0, 'As': 2.0, 'S': 4.0}\",\"('As', 'S', 'Sb')\",OTHERS,False\nmp-866114,\"{'Hf': 1.0, 'Tc': 2.0, 'W': 1.0}\",\"('Hf', 'Tc', 'W')\",OTHERS,False\nmp-1183173,\"{'Al': 1.0, 'Ga': 1.0, 'Ni': 2.0}\",\"('Al', 'Ga', 'Ni')\",OTHERS,False\nmp-12071,\"{'Ti': 6.0, 'As': 2.0}\",\"('As', 'Ti')\",OTHERS,False\nmp-1100700,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1208320,\"{'Tb': 4.0, 'Ni': 4.0, 'P': 4.0}\",\"('Ni', 'P', 'Tb')\",OTHERS,False\nmp-1238871,\"{'Ti': 4.0, 'Cr': 4.0, 'Ag': 4.0, 'S': 16.0}\",\"('Ag', 'Cr', 'S', 'Ti')\",OTHERS,False\nmp-556006,\"{'Os': 4.0, 'Cl': 16.0, 'O': 4.0}\",\"('Cl', 'O', 'Os')\",OTHERS,False\nmp-1195604,\"{'Mg': 1.0, 'H': 30.0, 'C': 2.0, 'S': 2.0, 'O': 18.0}\",\"('C', 'H', 'Mg', 'O', 'S')\",OTHERS,False\nmp-19771,\"{'Co': 2.0, 'Ge': 2.0, 'Dy': 1.0}\",\"('Co', 'Dy', 'Ge')\",OTHERS,False\nmp-6452,\"{'O': 20.0, 'Zn': 4.0, 'Ba': 4.0, 'Sm': 8.0}\",\"('Ba', 'O', 'Sm', 'Zn')\",OTHERS,False\nmp-3922,\"{'S': 8.0, 'Ag': 4.0, 'Sb': 4.0}\",\"('Ag', 'S', 'Sb')\",OTHERS,False\nmvc-8489,\"{'Ta': 4.0, 'Ni': 4.0, 'P': 8.0, 'O': 36.0}\",\"('Ni', 'O', 'P', 'Ta')\",OTHERS,False\nmp-1221218,\"{'Na': 8.0, 'Eu': 4.0, 'Sn': 2.0, 'As': 8.0}\",\"('As', 'Eu', 'Na', 'Sn')\",OTHERS,False\nmp-1020018,\"{'Li': 20.0, 'B': 4.0, 'S': 16.0, 'O': 64.0}\",\"('B', 'Li', 'O', 'S')\",OTHERS,False\nmp-1201589,\"{'Fe': 6.0, 'Se': 6.0, 'O': 20.0}\",\"('Fe', 'O', 'Se')\",OTHERS,False\nmp-1214100,\"{'Ca': 2.0, 'H': 1.0, 'I': 2.0}\",\"('Ca', 'H', 'I')\",OTHERS,False\nmp-24653,\"{'H': 32.0, 'N': 8.0, 'F': 20.0, 'Ti': 4.0}\",\"('F', 'H', 'N', 'Ti')\",OTHERS,False\nmp-1226695,\"{'Co': 2.0, 'H': 30.0, 'Br': 4.0, 'N': 12.0, 'O': 4.0}\",\"('Br', 'Co', 'H', 'N', 'O')\",OTHERS,False\nmp-1225584,\"{'Er': 1.0, 'Al': 1.0, 'Cu': 4.0}\",\"('Al', 'Cu', 'Er')\",OTHERS,False\nmp-1222566,\"{'Li': 9.0, 'Mn': 3.0, 'N': 4.0}\",\"('Li', 'Mn', 'N')\",OTHERS,False\nmp-1079120,\"{'Nb': 2.0, 'B': 4.0, 'Mo': 4.0}\",\"('B', 'Mo', 'Nb')\",OTHERS,False\nmp-569132,\"{'K': 12.0, 'In': 4.0, 'Cl': 24.0}\",\"('Cl', 'In', 'K')\",OTHERS,False\nmp-978527,\"{'Sm': 1.0, 'Dy': 1.0, 'Tl': 2.0}\",\"('Dy', 'Sm', 'Tl')\",OTHERS,False\nmp-22750,\"{'O': 8.0, 'P': 2.0, 'Pb': 3.0}\",\"('O', 'P', 'Pb')\",OTHERS,False\nmp-12697,\"{'Sc': 1.0, 'Mn': 6.0, 'Sn': 6.0}\",\"('Mn', 'Sc', 'Sn')\",OTHERS,False\nmp-1178571,\"{'Ag': 16.0, 'Ge': 16.0, 'O': 48.0}\",\"('Ag', 'Ge', 'O')\",OTHERS,False\nmp-1197685,\"{'Os': 16.0, 'C': 24.0}\",\"('C', 'Os')\",OTHERS,False\nmp-1069658,\"{'Eu': 1.0, 'Ge': 3.0, 'Rh': 1.0}\",\"('Eu', 'Ge', 'Rh')\",OTHERS,False\nmvc-11047,\"{'Mn': 2.0, 'S': 4.0}\",\"('Mn', 'S')\",OTHERS,False\nmp-735063,\"{'H': 28.0, 'C': 4.0, 'S': 4.0, 'N': 12.0, 'O': 16.0}\",\"('C', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-775750,\"{'Li': 4.0, 'Fe': 4.0, 'Si': 24.0, 'O': 60.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1216427,\"{'V': 6.0, 'Si': 1.0, 'Os': 1.0}\",\"('Os', 'Si', 'V')\",OTHERS,False\nmp-1227066,\"{'Ce': 1.0, 'Pr': 3.0, 'Fe': 34.0}\",\"('Ce', 'Fe', 'Pr')\",OTHERS,False\nmp-22627,\"{'Ga': 18.0, 'Ru': 6.0, 'Dy': 4.0}\",\"('Dy', 'Ga', 'Ru')\",OTHERS,False\nmp-765639,\"{'Sm': 11.0, 'Y': 5.0, 'O': 24.0}\",\"('O', 'Sm', 'Y')\",OTHERS,False\nmp-21447,\"{'P': 2.0, 'Co': 2.0, 'Nb': 8.0}\",\"('Co', 'Nb', 'P')\",OTHERS,False\nmvc-81,\"{'Ca': 4.0, 'Nb': 4.0, 'Sn': 2.0, 'O': 16.0}\",\"('Ca', 'Nb', 'O', 'Sn')\",OTHERS,False\nmp-1186542,\"{'Pm': 6.0, 'Tm': 2.0}\",\"('Pm', 'Tm')\",OTHERS,False\nmp-757811,\"{'Li': 6.0, 'V': 6.0, 'P': 8.0, 'O': 32.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1266684,\"{'Li': 8.0, 'Si': 8.0, 'Bi': 8.0, 'O': 32.0}\",\"('Bi', 'Li', 'O', 'Si')\",OTHERS,False\nmp-705305,\"{'V': 4.0, 'P': 12.0, 'O': 36.0}\",\"('O', 'P', 'V')\",OTHERS,False\nmp-1228382,\"{'Ba': 2.0, 'Nb': 1.0, 'Co': 1.0, 'O': 6.0}\",\"('Ba', 'Co', 'Nb', 'O')\",OTHERS,False\nmp-1181041,\"{'Ho': 4.0, 'W': 4.0, 'C': 8.0}\",\"('C', 'Ho', 'W')\",OTHERS,False\nmp-545488,\"{'Si': 4.0, 'O': 8.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1078877,\"{'Mg': 1.0, 'Si': 1.0, 'H': 2.0, 'O': 4.0}\",\"('H', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1194939,\"{'Na': 12.0, 'Mn': 3.0, 'S': 6.0, 'O': 24.0, 'F': 8.0}\",\"('F', 'Mn', 'Na', 'O', 'S')\",OTHERS,False\nmp-1216840,\"{'U': 5.0, 'P': 1.0, 'S': 4.0}\",\"('P', 'S', 'U')\",OTHERS,False\nmp-611062,\"{'Eu': 2.0, 'Sb': 4.0}\",\"('Eu', 'Sb')\",OTHERS,False\nmvc-3987,\"{'Mg': 4.0, 'Cr': 4.0, 'O': 12.0}\",\"('Cr', 'Mg', 'O')\",OTHERS,False\nmp-1213227,\"{'Dy': 4.0, 'Si': 12.0, 'Ni': 20.0}\",\"('Dy', 'Ni', 'Si')\",OTHERS,False\nmp-1233677,\"{'Ca': 1.0, 'Al': 2.0, 'Si': 6.0, 'O': 16.0}\",\"('Al', 'Ca', 'O', 'Si')\",OTHERS,False\nmp-864930,\"{'Li': 1.0, 'Ti': 1.0, 'Ir': 2.0}\",\"('Ir', 'Li', 'Ti')\",OTHERS,False\nmp-12722,\"{'Al': 4.0, 'Pd': 4.0, 'Tb': 4.0}\",\"('Al', 'Pd', 'Tb')\",OTHERS,False\nmp-1093670,\"{'Li': 1.0, 'Hg': 2.0, 'Rh': 1.0}\",\"('Hg', 'Li', 'Rh')\",OTHERS,False\nmp-1219105,\"{'Sm': 1.0, 'Al': 3.0, 'Cu': 1.0}\",\"('Al', 'Cu', 'Sm')\",OTHERS,False\nmvc-4456,\"{'Y': 2.0, 'Sn': 4.0, 'O': 8.0}\",\"('O', 'Sn', 'Y')\",OTHERS,False\nmp-1185219,\"{'La': 1.0, 'Ce': 1.0, 'Zn': 2.0}\",\"('Ce', 'La', 'Zn')\",OTHERS,False\nmp-758121,\"{'Fe': 4.0, 'C': 6.0, 'O': 18.0}\",\"('C', 'Fe', 'O')\",OTHERS,False\nmvc-3034,\"{'Mg': 8.0, 'Co': 10.0, 'Te': 6.0, 'O': 36.0}\",\"('Co', 'Mg', 'O', 'Te')\",OTHERS,False\nmp-1228574,\"{'Ba': 6.0, 'Ca': 6.0, 'Mg': 1.0, 'C': 13.0, 'O': 39.0}\",\"('Ba', 'C', 'Ca', 'Mg', 'O')\",OTHERS,False\nmp-1111171,\"{'K': 3.0, 'Pr': 1.0, 'I': 6.0}\",\"('I', 'K', 'Pr')\",OTHERS,False\nmp-676799,\"{'Ag': 8.0, 'Ge': 1.0, 'Te': 6.0}\",\"('Ag', 'Ge', 'Te')\",OTHERS,False\nmp-3285,\"{'O': 22.0, 'Na': 4.0, 'Ta': 8.0}\",\"('Na', 'O', 'Ta')\",OTHERS,False\nmp-1214095,\"{'Ca': 2.0, 'La': 1.0, 'Mn': 2.0, 'O': 7.0}\",\"('Ca', 'La', 'Mn', 'O')\",OTHERS,False\nmp-753089,\"{'Li': 2.0, 'Cu': 4.0, 'F': 12.0}\",\"('Cu', 'F', 'Li')\",OTHERS,False\nmp-561531,\"{'Y': 4.0, 'Si': 4.0, 'O': 14.0}\",\"('O', 'Si', 'Y')\",OTHERS,False\nmp-753724,\"{'Li': 3.0, 'Ni': 5.0, 'O': 1.0, 'F': 11.0}\",\"('F', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-771823,\"{'Li': 4.0, 'V': 4.0, 'Ni': 4.0, 'O': 16.0}\",\"('Li', 'Ni', 'O', 'V')\",OTHERS,False\nmp-1227032,\"{'Ca': 1.0, 'Mn': 1.0, 'O': 2.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,False\nmp-1201953,\"{'Ba': 6.0, 'Al': 4.0, 'B': 20.0, 'H': 8.0, 'O': 46.0}\",\"('Al', 'B', 'Ba', 'H', 'O')\",OTHERS,False\nmp-1223115,\"{'La': 8.0, 'Sb': 4.0, 'Pb': 2.0}\",\"('La', 'Pb', 'Sb')\",OTHERS,False\nmvc-8890,\"{'Zn': 4.0, 'Bi': 8.0, 'O': 20.0}\",\"('Bi', 'O', 'Zn')\",OTHERS,False\nmp-756912,\"{'Li': 4.0, 'Zn': 4.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Li', 'O', 'Zn')\",OTHERS,False\nmp-1202407,\"{'La': 4.0, 'B': 20.0, 'H': 20.0, 'N': 4.0, 'O': 56.0}\",\"('B', 'H', 'La', 'N', 'O')\",OTHERS,False\nmp-1079661,\"{'B': 1.0, 'C': 7.0}\",\"('B', 'C')\",OTHERS,False\nmp-1175277,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1106184,\"{'Mn': 4.0, 'B': 16.0}\",\"('B', 'Mn')\",OTHERS,False\nmp-1212495,\"{'Ge': 4.0, 'P': 8.0}\",\"('Ge', 'P')\",OTHERS,False\nmp-978802,\"{'Sm': 3.0, 'Pd': 1.0}\",\"('Pd', 'Sm')\",OTHERS,False\nmp-1196282,\"{'Cs': 8.0, 'H': 16.0, 'F': 24.0}\",\"('Cs', 'F', 'H')\",OTHERS,False\nmp-12237,\"{'O': 56.0, 'P': 20.0, 'Ho': 4.0}\",\"('Ho', 'O', 'P')\",OTHERS,False\nmp-865091,\"{'Hf': 1.0, 'Mn': 1.0, 'Rh': 2.0}\",\"('Hf', 'Mn', 'Rh')\",OTHERS,False\nmp-775910,\"{'Zr': 10.0, 'O': 20.0}\",\"('O', 'Zr')\",OTHERS,False\nmp-1187292,\"{'Tb': 6.0, 'Ge': 10.0}\",\"('Ge', 'Tb')\",OTHERS,False\nmp-573196,\"{'Cs': 6.0, 'Li': 4.0, 'Ga': 2.0, 'Mo': 8.0, 'O': 32.0}\",\"('Cs', 'Ga', 'Li', 'Mo', 'O')\",OTHERS,False\nmp-1204227,\"{'Al': 4.0, 'N': 12.0, 'O': 72.0}\",\"('Al', 'N', 'O')\",OTHERS,False\nmp-1207421,\"{'Zr': 12.0, 'Zn': 8.0}\",\"('Zn', 'Zr')\",OTHERS,False\nmp-570183,\"{'Pr': 1.0, 'As': 2.0, 'Pd': 2.0}\",\"('As', 'Pd', 'Pr')\",OTHERS,False\nmp-1222685,\"{'La': 1.0, 'Yb': 1.0, 'Al': 4.0}\",\"('Al', 'La', 'Yb')\",OTHERS,False\nmp-1223719,\"{'K': 4.0, 'Co': 4.0, 'Se': 6.0, 'O': 18.0}\",\"('Co', 'K', 'O', 'Se')\",OTHERS,False\nmp-1134210,\"{'Al': 4.0, 'Co': 13.0, 'Si': 2.0, 'Sb': 2.0, 'O': 28.0}\",\"('Al', 'Co', 'O', 'Sb', 'Si')\",OTHERS,False\nmp-1186070,\"{'Na': 3.0, 'Pr': 1.0}\",\"('Na', 'Pr')\",OTHERS,False\nmp-684766,\"{'Na': 1.0, 'Co': 2.0, 'H': 3.0, 'S': 2.0, 'O': 10.0}\",\"('Co', 'H', 'Na', 'O', 'S')\",OTHERS,False\nmp-1216708,\"{'V': 18.0, 'Ni': 12.0}\",\"('Ni', 'V')\",OTHERS,False\nmp-1188041,\"{'Zr': 3.0, 'Mn': 1.0}\",\"('Mn', 'Zr')\",OTHERS,False\nmp-1220691,\"{'Nb': 2.0, 'Cu': 1.0, 'S': 4.0}\",\"('Cu', 'Nb', 'S')\",OTHERS,False\nmp-1219682,\"{'Rb': 4.0, 'Nb': 12.0, 'P': 12.0, 'O': 60.0}\",\"('Nb', 'O', 'P', 'Rb')\",OTHERS,False\nmp-1185020,\"{'La': 1.0, 'Ho': 1.0, 'Tl': 2.0}\",\"('Ho', 'La', 'Tl')\",OTHERS,False\nmp-1066791,\"{'Tm': 1.0, 'Tl': 1.0, 'S': 2.0}\",\"('S', 'Tl', 'Tm')\",OTHERS,False\nmp-1213189,\"{'Cs': 2.0, 'Lu': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Cs', 'Lu', 'Mo', 'O')\",OTHERS,False\nmp-772024,\"{'Ba': 12.0, 'La': 4.0, 'Br': 36.0}\",\"('Ba', 'Br', 'La')\",OTHERS,False\nmp-981214,\"{'Sr': 1.0, 'Mg': 5.0}\",\"('Mg', 'Sr')\",OTHERS,False\nmp-1203905,\"{'K': 8.0, 'In': 4.0, 'Cl': 20.0, 'O': 4.0}\",\"('Cl', 'In', 'K', 'O')\",OTHERS,False\nmp-1206823,\"{'Pr': 1.0, 'I': 6.0}\",\"('I', 'Pr')\",OTHERS,False\nmp-1212903,\"{'Er': 4.0, 'Zn': 4.0, 'Rh': 4.0}\",\"('Er', 'Rh', 'Zn')\",OTHERS,False\nmp-720860,\"{'H': 36.0, 'C': 4.0, 'S': 4.0, 'O': 28.0, 'F': 12.0}\",\"('C', 'F', 'H', 'O', 'S')\",OTHERS,False\nmp-1174936,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1365,\"{'Ti': 12.0, 'Ge': 10.0}\",\"('Ge', 'Ti')\",OTHERS,False\nmp-1190931,\"{'Na': 2.0, 'Fe': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Fe', 'Mo', 'Na', 'O')\",OTHERS,False\nmp-779863,\"{'Hf': 16.0, 'N': 16.0, 'O': 8.0}\",\"('Hf', 'N', 'O')\",OTHERS,False\nmp-569158,\"{'Dy': 4.0, 'Co': 14.0, 'B': 6.0}\",\"('B', 'Co', 'Dy')\",OTHERS,False\nmp-1217432,\"{'V': 20.0, 'Ga': 1.0, 'Ge': 4.0, 'S': 40.0}\",\"('Ga', 'Ge', 'S', 'V')\",OTHERS,False\nmp-1198712,\"{'Y': 20.0, 'Ir': 12.0}\",\"('Ir', 'Y')\",OTHERS,False\nmp-559420,\"{'Sb': 16.0, 'Pt': 4.0, 'C': 16.0, 'O': 16.0, 'F': 88.0}\",\"('C', 'F', 'O', 'Pt', 'Sb')\",OTHERS,False\nmp-2235,\"{'Rh': 4.0, 'Yb': 2.0}\",\"('Rh', 'Yb')\",OTHERS,False\nmp-1008734,\"{'Th': 1.0, 'H': 2.0}\",\"('H', 'Th')\",OTHERS,False\nmp-11694,\"{'Cs': 2.0, 'Pd': 3.0, 'Se': 4.0}\",\"('Cs', 'Pd', 'Se')\",OTHERS,False\nmp-774897,\"{'Li': 3.0, 'Mn': 2.0, 'Cr': 1.0, 'O': 6.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1201880,\"{'Tb': 6.0, 'Co': 8.0, 'Sn': 26.0}\",\"('Co', 'Sn', 'Tb')\",OTHERS,False\nmp-971769,{'Tm': 4.0},\"('Tm',)\",OTHERS,False\nmp-1245979,\"{'Zn': 4.0, 'Co': 4.0, 'N': 8.0}\",\"('Co', 'N', 'Zn')\",OTHERS,False\nmp-654051,\"{'Nb': 12.0, 'S': 2.0, 'I': 18.0}\",\"('I', 'Nb', 'S')\",OTHERS,False\nmp-755038,\"{'Li': 5.0, 'Fe': 1.0, 'O': 3.0, 'F': 2.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1195541,\"{'P': 8.0, 'Pb': 8.0, 'O': 24.0}\",\"('O', 'P', 'Pb')\",OTHERS,False\nmp-1339,\"{'Nb': 1.0, 'Ir': 3.0}\",\"('Ir', 'Nb')\",OTHERS,False\nmp-1209461,\"{'Rb': 4.0, 'W': 6.0, 'Se': 2.0, 'O': 24.0}\",\"('O', 'Rb', 'Se', 'W')\",OTHERS,False\nmp-677094,\"{'Mg': 1.0, 'Ti': 3.0, 'Nb': 2.0, 'Pb': 6.0, 'O': 18.0}\",\"('Mg', 'Nb', 'O', 'Pb', 'Ti')\",OTHERS,False\nmp-30260,\"{'Ni': 21.0, 'Zr': 8.0}\",\"('Ni', 'Zr')\",OTHERS,False\nmp-1227122,\"{'Ca': 1.0, 'Ta': 4.0, 'O': 14.0}\",\"('Ca', 'O', 'Ta')\",OTHERS,False\nmp-1096097,\"{'Sr': 2.0, 'Li': 1.0, 'Ir': 1.0}\",\"('Ir', 'Li', 'Sr')\",OTHERS,False\nmp-774592,\"{'Li': 6.0, 'Co': 3.0, 'Sb': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Co', 'Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1105624,\"{'Na': 6.0, 'La': 2.0, 'N': 12.0}\",\"('La', 'N', 'Na')\",OTHERS,False\nmp-772076,\"{'Sr': 4.0, 'Li': 4.0, 'Nb': 5.0, 'Fe': 1.0, 'O': 20.0}\",\"('Fe', 'Li', 'Nb', 'O', 'Sr')\",OTHERS,False\nmp-779424,\"{'Gd': 6.0, 'Ta': 2.0, 'O': 14.0}\",\"('Gd', 'O', 'Ta')\",OTHERS,False\nmp-770822,\"{'Li': 6.0, 'Fe': 2.0, 'Si': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1211449,\"{'K': 2.0, 'Ho': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Ho', 'K', 'Mo', 'O')\",OTHERS,False\nmp-1229226,\"{'Al': 8.0, 'Cu': 4.0, 'Si': 8.0, 'O': 32.0, 'F': 4.0}\",\"('Al', 'Cu', 'F', 'O', 'Si')\",OTHERS,False\nmp-1175560,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-757167,\"{'Li': 6.0, 'Si': 3.0, 'Ni': 3.0, 'O': 12.0}\",\"('Li', 'Ni', 'O', 'Si')\",OTHERS,False\nmp-672314,\"{'Mg': 12.0, 'In': 4.0}\",\"('In', 'Mg')\",OTHERS,False\nmp-1207310,\"{'Sm': 2.0, 'Cd': 1.0, 'Sb': 3.0}\",\"('Cd', 'Sb', 'Sm')\",OTHERS,False\nmp-643471,\"{'Ba': 2.0, 'Y': 1.0, 'Cu': 4.0, 'O': 6.0}\",\"('Ba', 'Cu', 'O', 'Y')\",OTHERS,False\nmvc-5821,\"{'Mn': 2.0, 'Zn': 4.0, 'Ir': 2.0, 'O': 12.0}\",\"('Ir', 'Mn', 'O', 'Zn')\",OTHERS,False\nmp-10379,\"{'Cu': 4.0, 'Ge': 2.0, 'Hf': 3.0}\",\"('Cu', 'Ge', 'Hf')\",OTHERS,False\nmp-16253,\"{'Si': 4.0, 'Ca': 4.0, 'Ba': 4.0}\",\"('Ba', 'Ca', 'Si')\",OTHERS,False\nmp-706664,\"{'B': 80.0, 'H': 104.0}\",\"('B', 'H')\",OTHERS,False\nmp-1211478,\"{'K': 2.0, 'Ho': 6.0, 'F': 20.0}\",\"('F', 'Ho', 'K')\",OTHERS,False\nmp-779241,\"{'Li': 2.0, 'Cu': 10.0, 'P': 4.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-1112629,\"{'Cs': 2.0, 'Al': 1.0, 'Hg': 1.0, 'Br': 6.0}\",\"('Al', 'Br', 'Cs', 'Hg')\",OTHERS,False\nmp-1183976,\"{'Cs': 1.0, 'Te': 1.0, 'O': 3.0}\",\"('Cs', 'O', 'Te')\",OTHERS,False\nmp-696275,\"{'Sn': 1.0, 'H': 8.0, 'N': 2.0, 'Cl': 6.0}\",\"('Cl', 'H', 'N', 'Sn')\",OTHERS,False\nmp-771195,\"{'Na': 10.0, 'Ni': 4.0, 'As': 2.0, 'C': 8.0, 'O': 32.0}\",\"('As', 'C', 'Na', 'Ni', 'O')\",OTHERS,False\nmp-697038,\"{'Ba': 2.0, 'H': 6.0, 'Ru': 1.0}\",\"('Ba', 'H', 'Ru')\",OTHERS,False\nmp-1221115,\"{'Na': 1.0, 'Cr': 12.0, 'Si': 8.0, 'Br': 1.0, 'O': 28.0}\",\"('Br', 'Cr', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1100459,\"{'Mg': 8.0, 'Si': 16.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1182139,\"{'Ba': 4.0, 'I': 8.0, 'O': 4.0}\",\"('Ba', 'I', 'O')\",OTHERS,False\nmp-1217550,\"{'Tb': 4.0, 'Nd': 4.0, 'Co': 56.0, 'B': 4.0}\",\"('B', 'Co', 'Nd', 'Tb')\",OTHERS,False\nmp-1100158,\"{'Ba': 1.0, 'Hf': 1.0, 'Mg': 6.0}\",\"('Ba', 'Hf', 'Mg')\",OTHERS,False\nmp-863292,\"{'Na': 6.0, 'V': 2.0, 'P': 4.0, 'O': 18.0}\",\"('Na', 'O', 'P', 'V')\",OTHERS,False\nmp-735553,\"{'V': 12.0, 'P': 8.0, 'H': 48.0, 'C': 12.0, 'N': 8.0, 'O': 60.0}\",\"('C', 'H', 'N', 'O', 'P', 'V')\",OTHERS,False\nmp-1175354,\"{'Li': 7.0, 'Mn': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1224321,\"{'Hf': 2.0, 'Al': 2.0, 'Zn': 2.0}\",\"('Al', 'Hf', 'Zn')\",OTHERS,False\nmp-892,\"{'Sc': 1.0, 'Pt': 1.0}\",\"('Pt', 'Sc')\",OTHERS,False\nmp-8958,\"{'F': 10.0, 'Rb': 2.0, 'Pd': 4.0}\",\"('F', 'Pd', 'Rb')\",OTHERS,False\nmp-754336,\"{'Li': 2.0, 'Mn': 1.0, 'Fe': 1.0, 'O': 4.0}\",\"('Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1101034,\"{'Ti': 1.0, 'H': 12.0, 'N': 3.0, 'F': 7.0}\",\"('F', 'H', 'N', 'Ti')\",OTHERS,False\nmp-1076939,\"{'Gd': 2.0, 'Mn': 4.0}\",\"('Gd', 'Mn')\",OTHERS,False\nmp-989626,\"{'La': 2.0, 'W': 2.0, 'N': 6.0}\",\"('La', 'N', 'W')\",OTHERS,False\nmp-1039741,\"{'Na': 1.0, 'Hf': 1.0, 'Mg': 30.0, 'O': 31.0}\",\"('Hf', 'Mg', 'Na', 'O')\",OTHERS,False\nmp-867872,\"{'Li': 1.0, 'Cd': 1.0, 'Ag': 2.0}\",\"('Ag', 'Cd', 'Li')\",OTHERS,False\nmp-20223,\"{'O': 16.0, 'Mn': 8.0, 'Ge': 4.0}\",\"('Ge', 'Mn', 'O')\",OTHERS,False\nmvc-7973,\"{'Ca': 4.0, 'Mn': 4.0, 'As': 8.0, 'O': 28.0}\",\"('As', 'Ca', 'Mn', 'O')\",OTHERS,False\nmp-31387,\"{'Ga': 4.0, 'Pd': 4.0, 'Er': 4.0}\",\"('Er', 'Ga', 'Pd')\",OTHERS,False\nmp-1076601,\"{'Sr': 20.0, 'Ca': 12.0, 'Mn': 24.0, 'Fe': 8.0, 'O': 80.0}\",\"('Ca', 'Fe', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1199267,\"{'Tb': 8.0, 'Fe': 8.0, 'Sb': 24.0}\",\"('Fe', 'Sb', 'Tb')\",OTHERS,False\nmp-555030,\"{'Na': 4.0, 'Y': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Na', 'O', 'P', 'Y')\",OTHERS,False\nmp-1174529,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1178335,\"{'Ga': 2.0, 'Pt': 2.0, 'O': 4.0}\",\"('Ga', 'O', 'Pt')\",OTHERS,False\nmp-1070573,\"{'La': 1.0, 'Al': 3.0, 'Cu': 1.0}\",\"('Al', 'Cu', 'La')\",OTHERS,False\nmp-1111664,\"{'K': 2.0, 'Li': 1.0, 'Sb': 1.0, 'Cl': 6.0}\",\"('Cl', 'K', 'Li', 'Sb')\",OTHERS,False\nmp-779330,\"{'Li': 8.0, 'Mn': 4.0, 'H': 32.0, 'S': 8.0, 'O': 48.0}\",\"('H', 'Li', 'Mn', 'O', 'S')\",OTHERS,False\nmp-1073003,\"{'Mg': 8.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-31285,\"{'Se': 32.0, 'Pd': 4.0, 'Cs': 8.0}\",\"('Cs', 'Pd', 'Se')\",OTHERS,False\nmp-862791,\"{'Ga': 1.0, 'Cu': 1.0, 'Pt': 2.0}\",\"('Cu', 'Ga', 'Pt')\",OTHERS,False\nmp-1017519,\"{'Ir': 1.0, 'C': 1.0}\",\"('C', 'Ir')\",OTHERS,False\nmp-1220361,\"{'Nb': 1.0, 'O': 3.0}\",\"('Nb', 'O')\",OTHERS,False\nmp-707483,\"{'Ti': 4.0, 'P': 8.0, 'H': 16.0, 'O': 36.0}\",\"('H', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1179847,\"{'Pt': 4.0, 'N': 8.0, 'Cl': 8.0}\",\"('Cl', 'N', 'Pt')\",OTHERS,False\nmp-771773,\"{'Na': 4.0, 'Bi': 2.0, 'B': 2.0, 'P': 2.0, 'O': 14.0}\",\"('B', 'Bi', 'Na', 'O', 'P')\",OTHERS,False\nmp-757324,\"{'Ce': 2.0, 'Zr': 12.0, 'O': 28.0}\",\"('Ce', 'O', 'Zr')\",OTHERS,False\nmp-23893,\"{'H': 20.0, 'N': 4.0, 'O': 4.0, 'Br': 4.0}\",\"('Br', 'H', 'N', 'O')\",OTHERS,False\nmp-942702,\"{'Li': 2.0, 'Mn': 2.0, 'S': 2.0, 'O': 8.0, 'F': 2.0}\",\"('F', 'Li', 'Mn', 'O', 'S')\",OTHERS,False\nmp-605196,\"{'Cs': 2.0, 'Cu': 6.0, 'As': 16.0, 'H': 48.0, 'C': 16.0, 'I': 8.0, 'O': 16.0}\",\"('As', 'C', 'Cs', 'Cu', 'H', 'I', 'O')\",OTHERS,False\nmp-1062228,\"{'Ca': 1.0, 'O': 2.0}\",\"('Ca', 'O')\",OTHERS,False\nmp-1213281,\"{'Eu': 8.0, 'Mo': 4.0, 'O': 24.0}\",\"('Eu', 'Mo', 'O')\",OTHERS,False\nmp-770630,\"{'Rb': 2.0, 'Li': 4.0, 'Cr': 4.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Cr', 'Li', 'O', 'Rb')\",OTHERS,False\nmp-1208725,\"{'Sr': 3.0, 'Fe': 2.0, 'Ag': 2.0, 'S': 2.0, 'O': 5.0}\",\"('Ag', 'Fe', 'O', 'S', 'Sr')\",OTHERS,False\nmp-1147772,\"{'Ba': 2.0, 'Na': 2.0, 'Cu': 2.0, 'Br': 2.0, 'O': 4.0}\",\"('Ba', 'Br', 'Cu', 'Na', 'O')\",OTHERS,False\nmp-1206431,\"{'In': 2.0, 'Au': 3.0}\",\"('Au', 'In')\",OTHERS,False\nmp-1196267,\"{'Be': 4.0, 'Al': 4.0, 'Si': 4.0, 'O': 20.0}\",\"('Al', 'Be', 'O', 'Si')\",OTHERS,False\nmp-1095714,\"{'La': 1.0, 'Sb': 1.0, 'Pd': 2.0}\",\"('La', 'Pd', 'Sb')\",OTHERS,False\nmp-542664,\"{'Ce': 8.0, 'Se': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Ce', 'O', 'Se', 'Si')\",OTHERS,False\nmp-1248251,\"{'Al': 4.0, 'V': 4.0, 'O': 12.0}\",\"('Al', 'O', 'V')\",OTHERS,False\nmp-1209733,\"{'Sm': 2.0, 'Zr': 12.0, 'P': 18.0, 'O': 72.0}\",\"('O', 'P', 'Sm', 'Zr')\",OTHERS,False\nmp-687239,\"{'K': 10.0, 'Y': 2.0, 'Ni': 4.0, 'N': 24.0, 'O': 48.0}\",\"('K', 'N', 'Ni', 'O', 'Y')\",OTHERS,False\nmp-1199878,\"{'Ba': 4.0, 'U': 8.0, 'S': 20.0}\",\"('Ba', 'S', 'U')\",OTHERS,False\nmp-865014,\"{'Mg': 4.0, 'Cu': 2.0}\",\"('Cu', 'Mg')\",OTHERS,False\nmp-1245839,\"{'Sr': 6.0, 'Ni': 6.0, 'N': 10.0}\",\"('N', 'Ni', 'Sr')\",OTHERS,False\nmp-1174374,\"{'Li': 7.0, 'Co': 5.0, 'O': 12.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1181299,\"{'Mg': 2.0, 'U': 2.0, 'S': 4.0, 'O': 42.0}\",\"('Mg', 'O', 'S', 'U')\",OTHERS,False\nmp-21048,\"{'P': 4.0, 'Cr': 4.0}\",\"('Cr', 'P')\",OTHERS,False\nmp-1076487,\"{'Sr': 28.0, 'Ca': 4.0, 'Mn': 4.0, 'Fe': 28.0, 'O': 80.0}\",\"('Ca', 'Fe', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1095465,\"{'Y': 4.0, 'Ge': 4.0, 'Rh': 4.0}\",\"('Ge', 'Rh', 'Y')\",OTHERS,False\nmp-30432,\"{'Rh': 6.0, 'Ba': 2.0, 'Pb': 12.0}\",\"('Ba', 'Pb', 'Rh')\",OTHERS,False\nmp-561248,\"{'Sm': 8.0, 'Cu': 8.0, 'Te': 8.0, 'S': 8.0}\",\"('Cu', 'S', 'Sm', 'Te')\",OTHERS,False\nmp-35612,\"{'F': 1.0, 'O': 1.0, 'Pu': 1.0}\",\"('F', 'O', 'Pu')\",OTHERS,False\nmp-1214392,\"{'Ca': 3.0, 'S': 6.0, 'O': 30.0}\",\"('Ca', 'O', 'S')\",OTHERS,False\nmp-978270,\"{'Mg': 2.0, 'Zr': 6.0}\",\"('Mg', 'Zr')\",OTHERS,False\nmp-1192374,\"{'K': 4.0, 'Ge': 12.0, 'As': 12.0}\",\"('As', 'Ge', 'K')\",OTHERS,False\nmp-764985,\"{'Li': 8.0, 'Fe': 3.0, 'Co': 7.0, 'O': 20.0}\",\"('Co', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1223490,\"{'K': 4.0, 'C': 4.0, 'N': 4.0}\",\"('C', 'K', 'N')\",OTHERS,False\nmp-18673,\"{'O': 16.0, 'P': 4.0, 'Zn': 4.0, 'Cs': 4.0}\",\"('Cs', 'O', 'P', 'Zn')\",OTHERS,False\nmp-1185331,\"{'Li': 1.0, 'Dy': 2.0, 'Rh': 1.0}\",\"('Dy', 'Li', 'Rh')\",OTHERS,False\nmp-1208793,\"{'Sm': 1.0, 'Mg': 5.0, 'Sb': 4.0}\",\"('Mg', 'Sb', 'Sm')\",OTHERS,False\nmp-866536,\"{'Eu': 2.0, 'Na': 1.0, 'Sn': 1.0}\",\"('Eu', 'Na', 'Sn')\",OTHERS,False\nmp-753609,\"{'Li': 2.0, 'Mn': 1.0, 'P': 2.0, 'O': 8.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1247106,\"{'Mn': 4.0, 'Sn': 4.0, 'N': 8.0}\",\"('Mn', 'N', 'Sn')\",OTHERS,False\nmp-1078472,\"{'Ti': 2.0, 'Cu': 2.0, 'Ge': 2.0, 'As': 2.0}\",\"('As', 'Cu', 'Ge', 'Ti')\",OTHERS,False\nmp-1225239,\"{'Fe': 3.0, 'Ge': 2.0}\",\"('Fe', 'Ge')\",OTHERS,False\nmp-1232202,\"{'Ce': 16.0, 'Mg': 8.0, 'S': 32.0}\",\"('Ce', 'Mg', 'S')\",OTHERS,False\nmp-560929,\"{'F': 12.0, 'Na': 6.0, 'Cr': 2.0}\",\"('Cr', 'F', 'Na')\",OTHERS,False\nmp-16623,\"{'Al': 14.0, 'Dy': 2.0, 'Au': 6.0}\",\"('Al', 'Au', 'Dy')\",OTHERS,False\nmp-685124,\"{'Ni': 19.0, 'Se': 20.0}\",\"('Ni', 'Se')\",OTHERS,False\nmvc-5154,\"{'Ca': 4.0, 'Al': 2.0, 'Ag': 2.0, 'O': 10.0}\",\"('Ag', 'Al', 'Ca', 'O')\",OTHERS,False\nmp-1174756,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmvc-2876,\"{'Zn': 1.0, 'Sb': 4.0, 'O': 8.0}\",\"('O', 'Sb', 'Zn')\",OTHERS,False\nmp-7359,\"{'As': 2.0, 'Ag': 2.0, 'Ba': 2.0}\",\"('Ag', 'As', 'Ba')\",OTHERS,False\nmp-1075486,\"{'Mg': 10.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1370,\"{'Si': 32.0, 'Cs': 32.0}\",\"('Cs', 'Si')\",OTHERS,False\nmp-36733,\"{'Cd': 2.0, 'La': 4.0, 'Se': 8.0}\",\"('Cd', 'La', 'Se')\",OTHERS,False\nmp-559434,\"{'Tb': 4.0, 'B': 12.0, 'O': 24.0}\",\"('B', 'O', 'Tb')\",OTHERS,False\nmvc-8440,\"{'Mg': 4.0, 'Ti': 4.0, 'Si': 16.0, 'O': 40.0}\",\"('Mg', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-989584,\"{'Ca': 6.0, 'Sn': 2.0, 'N': 1.0, 'O': 1.0}\",\"('Ca', 'N', 'O', 'Sn')\",OTHERS,False\nmp-6531,\"{'O': 48.0, 'S': 12.0, 'K': 8.0, 'Mn': 8.0}\",\"('K', 'Mn', 'O', 'S')\",OTHERS,False\nmp-1216268,\"{'Y': 9.0, 'Lu': 3.0, 'Al': 20.0, 'O': 48.0}\",\"('Al', 'Lu', 'O', 'Y')\",OTHERS,False\nmp-759604,\"{'Mn': 12.0, 'O': 4.0, 'F': 32.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-862332,\"{'La': 2.0, 'Hg': 6.0}\",\"('Hg', 'La')\",OTHERS,False\nmp-1212221,\"{'Ho': 10.0, 'Bi': 2.0, 'Pd': 4.0}\",\"('Bi', 'Ho', 'Pd')\",OTHERS,False\nmp-975322,\"{'Rb': 1.0, 'Fe': 1.0, 'O': 3.0}\",\"('Fe', 'O', 'Rb')\",OTHERS,False\nmp-1225359,\"{'Fe': 4.0, 'Cu': 8.0, 'B': 4.0, 'O': 20.0}\",\"('B', 'Cu', 'Fe', 'O')\",OTHERS,False\nmp-568746,\"{'Bi': 4.0, 'Pd': 2.0}\",\"('Bi', 'Pd')\",OTHERS,False\nmp-758740,\"{'Li': 2.0, 'Fe': 8.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1025296,\"{'Sn': 1.0, 'P': 1.0, 'Pd': 5.0}\",\"('P', 'Pd', 'Sn')\",OTHERS,False\nmp-1177021,\"{'Li': 12.0, 'Mn': 2.0, 'V': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1202959,\"{'Zn': 18.0, 'S': 18.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-3742,\"{'O': 38.0, 'Fe': 24.0, 'Sr': 2.0}\",\"('Fe', 'O', 'Sr')\",OTHERS,False\nmp-600167,\"{'Cu': 4.0, 'H': 24.0, 'C': 16.0, 'O': 32.0}\",\"('C', 'Cu', 'H', 'O')\",OTHERS,False\nmp-1211979,\"{'K': 4.0, 'Nb': 12.0, 'Cu': 4.0, 'O': 36.0}\",\"('Cu', 'K', 'Nb', 'O')\",OTHERS,False\nmp-1025470,\"{'Lu': 2.0, 'Te': 6.0}\",\"('Lu', 'Te')\",OTHERS,False\nmp-622171,\"{'V': 4.0, 'Sb': 8.0, 'O': 20.0}\",\"('O', 'Sb', 'V')\",OTHERS,False\nmp-1180870,\"{'K': 6.0, 'Na': 2.0, 'Cr': 4.0, 'O': 16.0}\",\"('Cr', 'K', 'Na', 'O')\",OTHERS,False\nmp-25393,\"{'Li': 4.0, 'O': 8.0, 'F': 2.0, 'P': 2.0, 'Fe': 2.0}\",\"('F', 'Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1220523,\"{'Nb': 12.0, 'Zn': 4.0, 'Au': 4.0}\",\"('Au', 'Nb', 'Zn')\",OTHERS,False\nmp-1102657,\"{'Y': 8.0, 'Pt': 4.0}\",\"('Pt', 'Y')\",OTHERS,False\nmp-1223480,\"{'K': 1.0, 'Nd': 9.0, 'Si': 6.0, 'O': 26.0}\",\"('K', 'Nd', 'O', 'Si')\",OTHERS,False\nmp-915,\"{'Y': 1.0, 'Cd': 1.0}\",\"('Cd', 'Y')\",OTHERS,False\nmp-643367,\"{'Y': 2.0, 'C': 2.0, 'Br': 2.0}\",\"('Br', 'C', 'Y')\",OTHERS,False\nmp-865353,\"{'Tm': 2.0, 'I': 6.0}\",\"('I', 'Tm')\",OTHERS,False\nmp-23453,\"{'Br': 28.0, 'Sb': 20.0, 'Hg': 24.0}\",\"('Br', 'Hg', 'Sb')\",OTHERS,False\nmp-1113725,\"{'Rb': 2.0, 'Er': 1.0, 'Ag': 1.0, 'Cl': 6.0}\",\"('Ag', 'Cl', 'Er', 'Rb')\",OTHERS,False\nmp-1112106,\"{'Cs': 2.0, 'Y': 1.0, 'Tl': 1.0, 'Br': 6.0}\",\"('Br', 'Cs', 'Tl', 'Y')\",OTHERS,False\nmp-997589,\"{'La': 8.0, 'Al': 7.0, 'In': 1.0, 'O': 24.0}\",\"('Al', 'In', 'La', 'O')\",OTHERS,False\nmp-1097494,\"{'Mg': 1.0, 'Pd': 2.0, 'Pb': 1.0}\",\"('Mg', 'Pb', 'Pd')\",OTHERS,False\nmp-27722,\"{'N': 8.0, 'S': 24.0, 'Pd': 4.0}\",\"('N', 'Pd', 'S')\",OTHERS,False\nmp-1212103,\"{'K': 8.0, 'Fe': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'K', 'O', 'P')\",OTHERS,False\nmp-773014,\"{'Mn': 3.0, 'S': 6.0, 'O': 24.0}\",\"('Mn', 'O', 'S')\",OTHERS,False\nmp-626547,\"{'Ti': 6.0, 'H': 4.0, 'O': 14.0}\",\"('H', 'O', 'Ti')\",OTHERS,False\nmp-1205255,\"{'U': 4.0, 'N': 4.0, 'O': 32.0}\",\"('N', 'O', 'U')\",OTHERS,False\nmp-1073904,\"{'Mg': 12.0, 'Si': 10.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-11654,\"{'B': 3.0, 'O': 12.0, 'As': 3.0}\",\"('As', 'B', 'O')\",OTHERS,False\nmp-1228556,\"{'Al': 6.0, 'Cu': 2.0, 'B': 4.0, 'O': 17.0}\",\"('Al', 'B', 'Cu', 'O')\",OTHERS,False\nmp-1029282,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-4136,\"{'O': 16.0, 'P': 4.0, 'Ce': 4.0}\",\"('Ce', 'O', 'P')\",OTHERS,False\nmp-1172967,\"{'Li': 2.0, 'Ni': 4.0, 'O': 8.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmp-1222642,\"{'Li': 2.0, 'Ti': 3.0, 'Zn': 1.0, 'O': 8.0}\",\"('Li', 'O', 'Ti', 'Zn')\",OTHERS,False\nmp-1203386,\"{'K': 8.0, 'H': 12.0, 'Ir': 4.0, 'N': 4.0, 'Cl': 20.0}\",\"('Cl', 'H', 'Ir', 'K', 'N')\",OTHERS,False\nmp-556059,\"{'K': 4.0, 'Ni': 2.0, 'N': 8.0, 'O': 24.0}\",\"('K', 'N', 'Ni', 'O')\",OTHERS,False\nmp-774245,\"{'Li': 5.0, 'Mn': 5.0, 'Ni': 2.0, 'O': 12.0}\",\"('Li', 'Mn', 'Ni', 'O')\",OTHERS,False\nmp-10906,\"{'Al': 2.0, 'Zr': 2.0, 'Pt': 4.0}\",\"('Al', 'Pt', 'Zr')\",OTHERS,False\nmp-685418,\"{'Fe': 16.0, 'Cu': 8.0, 'O': 32.0}\",\"('Cu', 'Fe', 'O')\",OTHERS,False\nmvc-5883,\"{'Ca': 2.0, 'Cu': 4.0, 'O': 8.0}\",\"('Ca', 'Cu', 'O')\",OTHERS,False\nmp-757238,\"{'Gd': 2.0, 'As': 2.0, 'O': 8.0}\",\"('As', 'Gd', 'O')\",OTHERS,False\nmp-1175769,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1195843,\"{'Fe': 4.0, 'H': 32.0, 'S': 4.0, 'O': 32.0}\",\"('Fe', 'H', 'O', 'S')\",OTHERS,False\nmp-1038234,\"{'K': 1.0, 'Mg': 30.0, 'Al': 1.0, 'O': 32.0}\",\"('Al', 'K', 'Mg', 'O')\",OTHERS,False\nmp-862960,\"{'Pm': 1.0, 'Sn': 3.0}\",\"('Pm', 'Sn')\",OTHERS,False\nmp-763524,\"{'Li': 1.0, 'Fe': 2.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1217676,\"{'Tb': 24.0, 'Se': 45.0}\",\"('Se', 'Tb')\",OTHERS,False\nmp-1228524,\"{'Al': 4.0, 'Te': 6.0}\",\"('Al', 'Te')\",OTHERS,False\nmp-3390,\"{'Si': 2.0, 'Cu': 2.0, 'Y': 1.0}\",\"('Cu', 'Si', 'Y')\",OTHERS,False\nmp-1225279,\"{'Dy': 1.0, 'Cu': 1.0, 'Ge': 1.0}\",\"('Cu', 'Dy', 'Ge')\",OTHERS,False\nmp-998421,\"{'K': 2.0, 'Ca': 2.0, 'Cl': 6.0}\",\"('Ca', 'Cl', 'K')\",OTHERS,False\nmp-12075,\"{'B': 2.0, 'Fe': 2.0, 'Tb': 1.0}\",\"('B', 'Fe', 'Tb')\",OTHERS,False\nmp-1185183,\"{'La': 1.0, 'Ce': 1.0, 'Hg': 2.0}\",\"('Ce', 'Hg', 'La')\",OTHERS,False\nmp-1247638,\"{'Sr': 4.0, 'Ca': 28.0, 'Mn': 32.0, 'O': 96.0}\",\"('Ca', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1197458,\"{'K': 8.0, 'Th': 2.0, 'C': 16.0, 'O': 40.0}\",\"('C', 'K', 'O', 'Th')\",OTHERS,False\nmp-1178447,\"{'Fe': 8.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1175152,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1194972,\"{'S': 8.0, 'Xe': 4.0, 'O': 24.0, 'F': 8.0}\",\"('F', 'O', 'S', 'Xe')\",OTHERS,False\nmp-562263,\"{'Cs': 8.0, 'Pb': 4.0, 'O': 8.0}\",\"('Cs', 'O', 'Pb')\",OTHERS,False\nmp-531661,\"{'Nd': 10.0, 'O': 39.0, 'Ti': 12.0}\",\"('Nd', 'O', 'Ti')\",OTHERS,False\nmp-1223123,\"{'Li': 2.0, 'Ta': 2.0, 'W': 2.0, 'O': 13.0}\",\"('Li', 'O', 'Ta', 'W')\",OTHERS,False\nmp-1222841,\"{'La': 3.0, 'Si': 3.0, 'B': 3.0, 'O': 15.0}\",\"('B', 'La', 'O', 'Si')\",OTHERS,False\nmp-1192792,\"{'Sr': 4.0, 'Ru': 4.0, 'O': 12.0}\",\"('O', 'Ru', 'Sr')\",OTHERS,False\nmp-1221033,\"{'Na': 1.0, 'Sr': 12.0, 'Ni': 7.0, 'O': 23.0}\",\"('Na', 'Ni', 'O', 'Sr')\",OTHERS,False\nmp-3682,\"{'F': 6.0, 'K': 2.0, 'Cu': 2.0}\",\"('Cu', 'F', 'K')\",OTHERS,False\nmp-15994,\"{'O': 48.0, 'P': 16.0, 'Hg': 8.0}\",\"('Hg', 'O', 'P')\",OTHERS,False\nmp-1106129,\"{'Bi': 4.0, 'Te': 2.0, 'Br': 2.0, 'O': 9.0}\",\"('Bi', 'Br', 'O', 'Te')\",OTHERS,False\nmp-1187893,\"{'Y': 1.0, 'Np': 3.0}\",\"('Np', 'Y')\",OTHERS,False\nmp-867159,\"{'Sm': 1.0, 'Dy': 1.0, 'Mg': 2.0}\",\"('Dy', 'Mg', 'Sm')\",OTHERS,False\nmp-768959,\"{'Na': 8.0, 'Sb': 4.0, 'C': 8.0, 'S': 2.0, 'O': 32.0}\",\"('C', 'Na', 'O', 'S', 'Sb')\",OTHERS,False\nmp-759658,\"{'Li': 4.0, 'Ag': 4.0, 'F': 8.0}\",\"('Ag', 'F', 'Li')\",OTHERS,False\nmp-1196928,\"{'Mg': 2.0, 'Zr': 2.0, 'P': 4.0, 'H': 16.0, 'O': 24.0}\",\"('H', 'Mg', 'O', 'P', 'Zr')\",OTHERS,False\nmp-1201244,\"{'Rb': 12.0, 'Ir': 4.0, 'Br': 24.0, 'O': 4.0}\",\"('Br', 'Ir', 'O', 'Rb')\",OTHERS,False\nmp-1183984,\"{'Cu': 3.0, 'Te': 1.0}\",\"('Cu', 'Te')\",OTHERS,False\nmp-1186207,\"{'Nb': 2.0, 'Re': 1.0, 'Ru': 1.0}\",\"('Nb', 'Re', 'Ru')\",OTHERS,False\nmp-1195614,\"{'La': 4.0, 'Tl': 4.0, 'P': 8.0, 'S': 24.0}\",\"('La', 'P', 'S', 'Tl')\",OTHERS,False\nmp-1174064,\"{'Li': 6.0, 'Mn': 2.0, 'Co': 2.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-510377,\"{'B': 1.0, 'Eu': 1.0, 'Rh': 3.0}\",\"('B', 'Eu', 'Rh')\",OTHERS,False\nmp-570506,\"{'Zr': 4.0, 'I': 8.0}\",\"('I', 'Zr')\",OTHERS,False\nmp-1191016,\"{'Tm': 6.0, 'B': 14.0, 'W': 2.0}\",\"('B', 'Tm', 'W')\",OTHERS,False\nmp-756977,\"{'Ni': 1.0, 'H': 12.0, 'S': 1.0, 'O': 9.0}\",\"('H', 'Ni', 'O', 'S')\",OTHERS,False\nmp-1202032,\"{'Fe': 4.0, 'Sn': 4.0, 'O': 24.0}\",\"('Fe', 'O', 'Sn')\",OTHERS,False\nmp-1039058,\"{'Mg': 4.0, 'Bi': 8.0}\",\"('Bi', 'Mg')\",OTHERS,False\nmp-1072824,\"{'Dy': 2.0, 'Cu': 2.0, 'Sn': 2.0}\",\"('Cu', 'Dy', 'Sn')\",OTHERS,False\nmp-1246430,\"{'Zn': 6.0, 'Mo': 2.0, 'N': 8.0}\",\"('Mo', 'N', 'Zn')\",OTHERS,False\nmp-1203025,\"{'Np': 16.0, 'N': 24.0}\",\"('N', 'Np')\",OTHERS,False\nmp-12990,\"{'C': 2.0, 'Al': 2.0, 'Ti': 4.0}\",\"('Al', 'C', 'Ti')\",OTHERS,False\nmp-1220641,\"{'Nb': 3.0, 'B': 4.0, 'W': 3.0}\",\"('B', 'Nb', 'W')\",OTHERS,False\nmp-554497,\"{'Cu': 1.0, 'Sb': 2.0, 'Xe': 4.0, 'F': 20.0}\",\"('Cu', 'F', 'Sb', 'Xe')\",OTHERS,False\nmp-1024954,\"{'Ho': 2.0, 'Cu': 2.0, 'Sn': 2.0}\",\"('Cu', 'Ho', 'Sn')\",OTHERS,False\nmp-1232305,\"{'Y': 4.0, 'Mg': 4.0, 'Se': 12.0}\",\"('Mg', 'Se', 'Y')\",OTHERS,False\nmp-29815,\"{'As': 16.0, 'La': 8.0}\",\"('As', 'La')\",OTHERS,False\nmp-850399,\"{'Li': 2.0, 'V': 2.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('H', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1103416,\"{'Na': 2.0, 'B': 2.0, 'H': 8.0}\",\"('B', 'H', 'Na')\",OTHERS,False\nmp-1175120,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1219621,\"{'Rb': 1.0, 'Cu': 2.0, 'H': 3.0, 'S': 2.0, 'O': 10.0}\",\"('Cu', 'H', 'O', 'Rb', 'S')\",OTHERS,False\nmp-1080109,\"{'Cu': 4.0, 'S': 3.0, 'N': 1.0}\",\"('Cu', 'N', 'S')\",OTHERS,False\nmp-1197395,\"{'K': 4.0, 'Mn': 6.0, 'H': 12.0, 'S': 6.0, 'O': 32.0}\",\"('H', 'K', 'Mn', 'O', 'S')\",OTHERS,False\nmp-1073181,\"{'Mg': 8.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1187060,\"{'Th': 6.0, 'V': 2.0}\",\"('Th', 'V')\",OTHERS,False\nmp-1178327,\"{'Fe': 8.0, 'O': 14.0, 'F': 2.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-756365,\"{'Ca': 4.0, 'Ce': 4.0, 'O': 12.0}\",\"('Ca', 'Ce', 'O')\",OTHERS,False\nmp-1187802,\"{'Y': 6.0, 'Ge': 2.0}\",\"('Ge', 'Y')\",OTHERS,False\nmvc-9587,\"{'Ca': 2.0, 'Bi': 4.0, 'O': 8.0}\",\"('Bi', 'Ca', 'O')\",OTHERS,False\nmp-1037923,\"{'Mg': 30.0, 'Mn': 1.0, 'Fe': 1.0, 'O': 32.0}\",\"('Fe', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-1099625,\"{'Sm': 4.0, 'Ni': 4.0, 'O': 10.0}\",\"('Ni', 'O', 'Sm')\",OTHERS,False\nmp-572159,\"{'K': 2.0, 'Fe': 2.0, 'C': 12.0, 'N': 6.0, 'O': 6.0}\",\"('C', 'Fe', 'K', 'N', 'O')\",OTHERS,False\nmp-1178781,\"{'Zn': 4.0, 'P': 6.0, 'O': 32.0}\",\"('O', 'P', 'Zn')\",OTHERS,False\nmp-1101036,\"{'Tl': 90.0, 'Sb': 10.0, 'Te': 60.0}\",\"('Sb', 'Te', 'Tl')\",OTHERS,False\nmp-1113520,\"{'Cs': 2.0, 'Sc': 1.0, 'In': 1.0, 'Br': 6.0}\",\"('Br', 'Cs', 'In', 'Sc')\",OTHERS,False\nmp-672244,\"{'Gd': 1.0, 'Al': 4.0, 'Ge': 2.0, 'Au': 1.0}\",\"('Al', 'Au', 'Gd', 'Ge')\",OTHERS,False\nmp-865562,\"{'Be': 3.0, 'Ru': 1.0}\",\"('Be', 'Ru')\",OTHERS,False\nmp-22541,\"{'Mn': 1.0, 'Ni': 1.0, 'Sb': 1.0}\",\"('Mn', 'Ni', 'Sb')\",OTHERS,False\nmp-1179643,{'S': 4.0},\"('S',)\",OTHERS,False\nmp-685931,\"{'Ba': 20.0, 'Nb': 19.0, 'Se': 60.0}\",\"('Ba', 'Nb', 'Se')\",OTHERS,False\nmp-1194498,\"{'Ba': 2.0, 'Fe': 6.0, 'P': 6.0, 'O': 24.0}\",\"('Ba', 'Fe', 'O', 'P')\",OTHERS,False\nmp-1101339,\"{'Tb': 2.0, 'Ga': 2.0, 'O': 6.0}\",\"('Ga', 'O', 'Tb')\",OTHERS,False\nmp-1073623,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-530399,\"{'Al': 20.0, 'Li': 4.0, 'O': 32.0}\",\"('Al', 'Li', 'O')\",OTHERS,False\nmp-1216133,\"{'Yb': 4.0, 'Zr': 1.0, 'Co': 33.0}\",\"('Co', 'Yb', 'Zr')\",OTHERS,False\nmp-1187680,\"{'Yb': 2.0, 'Nb': 6.0}\",\"('Nb', 'Yb')\",OTHERS,False\nmp-1246820,\"{'Re': 2.0, 'Te': 2.0, 'N': 2.0}\",\"('N', 'Re', 'Te')\",OTHERS,False\nmp-12337,\"{'O': 12.0, 'Na': 2.0, 'La': 4.0, 'Os': 2.0}\",\"('La', 'Na', 'O', 'Os')\",OTHERS,False\nmp-1224966,\"{'Fe': 1.0, 'Co': 1.0, 'Se': 2.0}\",\"('Co', 'Fe', 'Se')\",OTHERS,False\nmp-1198056,\"{'Na': 8.0, 'Al': 8.0, 'Si': 8.0, 'O': 32.0}\",\"('Al', 'Na', 'O', 'Si')\",OTHERS,False\nmvc-10213,\"{'Zn': 6.0, 'Co': 12.0, 'O': 24.0}\",\"('Co', 'O', 'Zn')\",OTHERS,False\nmp-20257,\"{'As': 2.0, 'Pd': 6.0, 'Pb': 4.0}\",\"('As', 'Pb', 'Pd')\",OTHERS,False\nmp-1219023,\"{'Sm': 1.0, 'Ga': 3.0, 'Ni': 1.0}\",\"('Ga', 'Ni', 'Sm')\",OTHERS,False\nmvc-9088,\"{'Zn': 2.0, 'Ni': 4.0, 'P': 4.0, 'O': 20.0}\",\"('Ni', 'O', 'P', 'Zn')\",OTHERS,False\nmp-778187,\"{'Li': 8.0, 'Co': 6.0, 'P': 8.0, 'H': 36.0, 'O': 48.0}\",\"('Co', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-567199,\"{'Pb': 5.0, 'I': 10.0}\",\"('I', 'Pb')\",OTHERS,False\nmp-555101,\"{'K': 3.0, 'Co': 2.0, 'F': 7.0}\",\"('Co', 'F', 'K')\",OTHERS,False\nmp-1028769,\"{'W': 4.0, 'Se': 6.0, 'S': 2.0}\",\"('S', 'Se', 'W')\",OTHERS,False\nmp-1028795,\"{'Te': 2.0, 'Mo': 1.0, 'W': 3.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1214583,\"{'Ba': 2.0, 'Y': 1.0, 'Cu': 2.0, 'Hg': 1.0, 'O': 7.0}\",\"('Ba', 'Cu', 'Hg', 'O', 'Y')\",OTHERS,False\nmp-1190719,\"{'Bi': 16.0, 'Mo': 6.0}\",\"('Bi', 'Mo')\",OTHERS,False\nmp-677627,\"{'Li': 12.0, 'Nd': 12.0, 'Te': 8.0, 'O': 48.0}\",\"('Li', 'Nd', 'O', 'Te')\",OTHERS,False\nmp-755418,\"{'Li': 4.0, 'Mn': 3.0, 'Nb': 3.0, 'Sb': 2.0, 'O': 16.0}\",\"('Li', 'Mn', 'Nb', 'O', 'Sb')\",OTHERS,False\nmp-1099747,\"{'Eu': 4.0, 'Mn': 4.0, 'O': 10.0}\",\"('Eu', 'Mn', 'O')\",OTHERS,False\nmp-754393,\"{'Li': 5.0, 'Mn': 7.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-3526,\"{'In': 3.0, 'Er': 3.0, 'Pt': 3.0}\",\"('Er', 'In', 'Pt')\",OTHERS,False\nmp-9939,\"{'Ge': 2.0, 'Hf': 4.0}\",\"('Ge', 'Hf')\",OTHERS,False\nmp-705147,\"{'Fe': 8.0, 'Ge': 4.0, 'Se': 16.0}\",\"('Fe', 'Ge', 'Se')\",OTHERS,False\nmp-24390,\"{'H': 4.0, 'O': 16.0, 'P': 4.0, 'Ca': 4.0}\",\"('Ca', 'H', 'O', 'P')\",OTHERS,False\nmp-555271,\"{'Ba': 4.0, 'Zn': 4.0, 'Cl': 2.0, 'F': 14.0}\",\"('Ba', 'Cl', 'F', 'Zn')\",OTHERS,False\nmp-1215723,\"{'Zr': 1.0, 'Al': 6.0, 'Fe': 6.0}\",\"('Al', 'Fe', 'Zr')\",OTHERS,False\nmp-867677,\"{'Li': 4.0, 'Ag': 4.0, 'F': 24.0}\",\"('Ag', 'F', 'Li')\",OTHERS,False\nmp-765480,\"{'Li': 4.0, 'V': 4.0, 'F': 20.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-558298,\"{'Zn': 3.0, 'Te': 1.0, 'As': 2.0, 'Pb': 3.0, 'O': 14.0}\",\"('As', 'O', 'Pb', 'Te', 'Zn')\",OTHERS,False\nmp-1190355,\"{'Li': 2.0, 'Al': 2.0, 'Si': 4.0, 'O': 14.0}\",\"('Al', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1213036,\"{'Er': 3.0, 'Ga': 9.0, 'Os': 3.0}\",\"('Er', 'Ga', 'Os')\",OTHERS,False\nmp-1192146,\"{'Nb': 4.0, 'Te': 16.0, 'Os': 4.0}\",\"('Nb', 'Os', 'Te')\",OTHERS,False\nmp-213,\"{'Ca': 1.0, 'Pd': 1.0}\",\"('Ca', 'Pd')\",OTHERS,False\nmp-570293,\"{'Nb': 10.0, 'Ga': 6.0}\",\"('Ga', 'Nb')\",OTHERS,False\nmp-972285,\"{'Sr': 3.0, 'Li': 1.0}\",\"('Li', 'Sr')\",OTHERS,False\nmp-21309,\"{'O': 6.0, 'Mg': 1.0, 'Te': 1.0, 'Pb': 2.0}\",\"('Mg', 'O', 'Pb', 'Te')\",OTHERS,False\nmp-1195937,\"{'Na': 8.0, 'Be': 8.0, 'Si': 24.0, 'O': 64.0}\",\"('Be', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1194721,\"{'Sc': 6.0, 'Mn': 6.0, 'Al': 14.0, 'Si': 10.0}\",\"('Al', 'Mn', 'Sc', 'Si')\",OTHERS,False\nmp-1216668,\"{'V': 6.0, 'Zn': 4.0, 'Fe': 2.0, 'O': 22.0}\",\"('Fe', 'O', 'V', 'Zn')\",OTHERS,False\nmp-1183346,\"{'Ba': 2.0, 'Ca': 6.0}\",\"('Ba', 'Ca')\",OTHERS,False\nmp-3886,\"{'C': 2.0, 'Al': 2.0, 'Zr': 4.0}\",\"('Al', 'C', 'Zr')\",OTHERS,False\nmp-10960,\"{'O': 5.0, 'S': 2.0, 'Ti': 2.0, 'Tb': 2.0}\",\"('O', 'S', 'Tb', 'Ti')\",OTHERS,False\nmp-31268,\"{'Al': 2.0, 'Br': 12.0, 'Bi': 2.0}\",\"('Al', 'Bi', 'Br')\",OTHERS,False\nmp-1187431,\"{'Ti': 2.0, 'Cu': 1.0, 'Ir': 1.0}\",\"('Cu', 'Ir', 'Ti')\",OTHERS,False\nmvc-8819,\"{'Si': 16.0, 'Ni': 4.0, 'O': 40.0}\",\"('Ni', 'O', 'Si')\",OTHERS,False\nmp-5836,\"{'O': 8.0, 'Si': 2.0, 'Th': 2.0}\",\"('O', 'Si', 'Th')\",OTHERS,False\nmvc-11655,\"{'Mg': 1.0, 'Mn': 4.0, 'O': 8.0}\",\"('Mg', 'Mn', 'O')\",OTHERS,False\nmp-1096338,\"{'Na': 1.0, 'Li': 1.0, 'Hg': 2.0}\",\"('Hg', 'Li', 'Na')\",OTHERS,False\nmp-8261,\"{'O': 9.0, 'Ba': 3.0, 'Yb': 4.0}\",\"('Ba', 'O', 'Yb')\",OTHERS,False\nmp-1105554,\"{'Tm': 8.0, 'Re': 4.0, 'C': 8.0}\",\"('C', 'Re', 'Tm')\",OTHERS,False\nmp-1175203,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-754990,\"{'Li': 4.0, 'V': 2.0, 'P': 4.0, 'H': 2.0, 'O': 16.0}\",\"('H', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-625477,\"{'Eu': 2.0, 'H': 6.0, 'O': 6.0}\",\"('Eu', 'H', 'O')\",OTHERS,False\nmp-1100664,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1202854,\"{'Pr': 20.0, 'Mo': 12.0, 'O': 64.0}\",\"('Mo', 'O', 'Pr')\",OTHERS,False\nmp-22896,\"{'Cl': 6.0, 'La': 2.0}\",\"('Cl', 'La')\",OTHERS,False\nmp-706995,\"{'Zn': 4.0, 'Co': 4.0, 'H': 72.0, 'N': 24.0, 'Cl': 20.0}\",\"('Cl', 'Co', 'H', 'N', 'Zn')\",OTHERS,False\nmp-1247556,\"{'K': 1.0, 'Ba': 1.0, 'N': 1.0}\",\"('Ba', 'K', 'N')\",OTHERS,False\nmp-753781,\"{'Eu': 1.0, 'Hf': 1.0, 'O': 3.0}\",\"('Eu', 'Hf', 'O')\",OTHERS,False\nmp-21554,\"{'P': 6.0, 'Pb': 10.0, 'O': 24.0, 'F': 2.0}\",\"('F', 'O', 'P', 'Pb')\",OTHERS,False\nmp-1184239,\"{'Er': 1.0, 'Sc': 1.0, 'Zn': 2.0}\",\"('Er', 'Sc', 'Zn')\",OTHERS,False\nmp-861915,\"{'Li': 1.0, 'Dy': 2.0, 'Ir': 1.0}\",\"('Dy', 'Ir', 'Li')\",OTHERS,False\nmp-21708,\"{'Cu': 24.0, 'Ce': 4.0}\",\"('Ce', 'Cu')\",OTHERS,False\nmp-1220197,\"{'Nd': 1.0, 'Al': 1.0, 'Cu': 4.0}\",\"('Al', 'Cu', 'Nd')\",OTHERS,False\nmp-6183,\"{'O': 12.0, 'Ru': 2.0, 'Ba': 4.0, 'Pr': 2.0}\",\"('Ba', 'O', 'Pr', 'Ru')\",OTHERS,False\nmp-1224097,\"{'K': 4.0, 'N': 2.0, 'O': 5.0}\",\"('K', 'N', 'O')\",OTHERS,False\nmp-1198084,\"{'Ca': 6.0, 'S': 6.0, 'O': 27.0}\",\"('Ca', 'O', 'S')\",OTHERS,False\nmp-1206315,\"{'Sm': 3.0, 'Cd': 3.0, 'Au': 3.0}\",\"('Au', 'Cd', 'Sm')\",OTHERS,False\nmp-560014,\"{'Pr': 6.0, 'Cu': 2.0, 'Sn': 2.0, 'S': 14.0}\",\"('Cu', 'Pr', 'S', 'Sn')\",OTHERS,False\nmp-1218470,\"{'Sr': 1.0, 'Ca': 1.0, 'Ni': 8.0, 'Sn': 4.0}\",\"('Ca', 'Ni', 'Sn', 'Sr')\",OTHERS,False\nmp-7109,\"{'Si': 2.0, 'Lu': 1.0, 'Pt': 2.0}\",\"('Lu', 'Pt', 'Si')\",OTHERS,False\nmp-555276,\"{'Sm': 8.0, 'U': 4.0, 'S': 20.0}\",\"('S', 'Sm', 'U')\",OTHERS,False\nmp-1244551,\"{'Cr': 8.0, 'Bi': 8.0, 'O': 40.0}\",\"('Bi', 'Cr', 'O')\",OTHERS,False\nmp-581967,\"{'Nb': 28.0, 'O': 70.0}\",\"('Nb', 'O')\",OTHERS,False\nmp-1217922,\"{'Ta': 1.0, 'Re': 1.0, 'Se': 4.0}\",\"('Re', 'Se', 'Ta')\",OTHERS,False\nmp-1211736,\"{'K': 2.0, 'Rb': 1.0, 'Pr': 1.0, 'V': 2.0, 'O': 8.0}\",\"('K', 'O', 'Pr', 'Rb', 'V')\",OTHERS,False\nmvc-7646,\"{'Mg': 4.0, 'Sn': 6.0, 'O': 16.0}\",\"('Mg', 'O', 'Sn')\",OTHERS,False\nmp-1093680,\"{'Mg': 1.0, 'Cr': 1.0, 'Pt': 2.0}\",\"('Cr', 'Mg', 'Pt')\",OTHERS,False\nmp-21742,\"{'Ba': 20.0, 'Al': 4.0, 'Ir': 8.0, 'O': 44.0}\",\"('Al', 'Ba', 'Ir', 'O')\",OTHERS,False\nmp-722351,\"{'H': 12.0, 'Pb': 4.0, 'S': 8.0, 'N': 12.0}\",\"('H', 'N', 'Pb', 'S')\",OTHERS,False\nmp-1006891,\"{'K': 1.0, 'Sm': 1.0, 'Se': 2.0}\",\"('K', 'Se', 'Sm')\",OTHERS,False\nmp-766589,\"{'Li': 10.0, 'Co': 16.0, 'O': 32.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1246592,\"{'Mg': 2.0, 'Fe': 10.0, 'N': 8.0}\",\"('Fe', 'Mg', 'N')\",OTHERS,False\nmp-626879,\"{'V': 12.0, 'H': 8.0, 'O': 32.0}\",\"('H', 'O', 'V')\",OTHERS,False\nmp-1078876,\"{'Er': 3.0, 'Sn': 3.0, 'Ir': 3.0}\",\"('Er', 'Ir', 'Sn')\",OTHERS,False\nmp-1187242,\"{'Ta': 1.0, 'Nb': 1.0, 'Re': 2.0}\",\"('Nb', 'Re', 'Ta')\",OTHERS,False\nmp-1027894,\"{'Mo': 3.0, 'W': 1.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-1252808,\"{'Al': 8.0, 'B': 24.0, 'H': 112.0, 'N': 8.0}\",\"('Al', 'B', 'H', 'N')\",OTHERS,False\nmp-766215,\"{'Na': 5.0, 'Li': 1.0, 'Fe': 6.0, 'Si': 12.0, 'O': 36.0}\",\"('Fe', 'Li', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1246474,\"{'Zr': 4.0, 'Cr': 4.0, 'Ag': 4.0, 'S': 16.0}\",\"('Ag', 'Cr', 'S', 'Zr')\",OTHERS,False\nmp-1018692,\"{'Er': 2.0, 'Te': 4.0}\",\"('Er', 'Te')\",OTHERS,False\nmp-11447,\"{'Te': 1.0, 'U': 1.0}\",\"('Te', 'U')\",OTHERS,False\nmp-20750,\"{'C': 1.0, 'Sn': 1.0, 'Tb': 3.0}\",\"('C', 'Sn', 'Tb')\",OTHERS,False\nmp-558544,\"{'Mo': 2.0, 'S': 4.0}\",\"('Mo', 'S')\",OTHERS,False\nmp-1216639,\"{'U': 2.0, 'Al': 3.0, 'Si': 3.0}\",\"('Al', 'Si', 'U')\",OTHERS,False\nmp-759027,\"{'Fe': 12.0, 'O': 12.0, 'F': 12.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1221042,\"{'Na': 2.0, 'Ga': 12.0, 'Ag': 2.0, 'Te': 20.0}\",\"('Ag', 'Ga', 'Na', 'Te')\",OTHERS,False\nmp-677152,\"{'Ho': 10.0, 'Te': 7.0, 'S': 10.0}\",\"('Ho', 'S', 'Te')\",OTHERS,False\nmp-645044,\"{'Mn': 8.0, 'Hg': 16.0, 'C': 48.0, 'S': 48.0, 'N': 48.0}\",\"('C', 'Hg', 'Mn', 'N', 'S')\",OTHERS,False\nmp-640118,\"{'Ce': 4.0, 'Zn': 12.0}\",\"('Ce', 'Zn')\",OTHERS,False\nmp-1094364,\"{'Mg': 12.0, 'Ti': 12.0}\",\"('Mg', 'Ti')\",OTHERS,False\nmvc-2412,\"{'Zn': 2.0, 'Cr': 9.0, 'O': 13.0}\",\"('Cr', 'O', 'Zn')\",OTHERS,False\nmp-359,\"{'P': 6.0, 'Cu': 18.0}\",\"('Cu', 'P')\",OTHERS,False\nmp-1104235,\"{'Hg': 1.0, 'H': 4.0, 'C': 2.0, 'N': 4.0, 'Cl': 2.0}\",\"('C', 'Cl', 'H', 'Hg', 'N')\",OTHERS,False\nmp-1214830,\"{'B': 6.0, 'H': 12.0, 'C': 12.0}\",\"('B', 'C', 'H')\",OTHERS,False\nmp-1220068,\"{'Rb': 4.0, 'U': 12.0, 'Pt': 8.0, 'Se': 34.0}\",\"('Pt', 'Rb', 'Se', 'U')\",OTHERS,False\nmp-1213030,\"{'Er': 8.0, 'Fe': 2.0}\",\"('Er', 'Fe')\",OTHERS,False\nmp-1175581,\"{'Li': 7.0, 'Mn': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-13008,\"{'Cr': 2.0, 'Ge': 6.0, 'Nd': 2.0}\",\"('Cr', 'Ge', 'Nd')\",OTHERS,False\nmp-30934,\"{'S': 24.0, 'As': 1.0, 'I': 3.0}\",\"('As', 'I', 'S')\",OTHERS,False\nmvc-6779,\"{'Zn': 4.0, 'Mo': 8.0, 'O': 16.0}\",\"('Mo', 'O', 'Zn')\",OTHERS,False\nmp-1112650,\"{'Cs': 3.0, 'Sm': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Sm')\",OTHERS,False\nmvc-3788,\"{'Ti': 4.0, 'Zn': 4.0, 'O': 12.0}\",\"('O', 'Ti', 'Zn')\",OTHERS,False\nmp-1183941,\"{'Ce': 4.0, 'Mg': 2.0}\",\"('Ce', 'Mg')\",OTHERS,False\nmp-1215958,\"{'Y': 2.0, 'Fe': 2.0, 'Co': 2.0}\",\"('Co', 'Fe', 'Y')\",OTHERS,False\nmp-1196079,\"{'Mg': 24.0, 'Bi': 16.0}\",\"('Bi', 'Mg')\",OTHERS,False\nmvc-5228,\"{'Mg': 6.0, 'Mn': 12.0, 'O': 24.0}\",\"('Mg', 'Mn', 'O')\",OTHERS,False\nmp-1078566,\"{'Ce': 2.0, 'Mn': 2.0, 'Se': 2.0, 'O': 3.0}\",\"('Ce', 'Mn', 'O', 'Se')\",OTHERS,False\nmp-1204595,\"{'Gd': 16.0, 'Si': 8.0, 'S': 12.0, 'O': 28.0}\",\"('Gd', 'O', 'S', 'Si')\",OTHERS,False\nmp-26612,\"{'Fe': 6.0, 'O': 24.0, 'P': 6.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmvc-7248,\"{'Ba': 1.0, 'Cu': 1.0, 'Re': 1.0, 'O': 5.0}\",\"('Ba', 'Cu', 'O', 'Re')\",OTHERS,False\nmp-779704,\"{'Si': 2.0, 'Hg': 4.0, 'O': 8.0}\",\"('Hg', 'O', 'Si')\",OTHERS,False\nmp-556063,\"{'Pr': 1.0, 'P': 3.0, 'H': 6.0, 'O': 12.0}\",\"('H', 'O', 'P', 'Pr')\",OTHERS,False\nmp-1062510,\"{'Nd': 1.0, 'Pd': 2.0}\",\"('Nd', 'Pd')\",OTHERS,False\nmp-1099583,\"{'Sm': 1.0, 'Ti': 1.0, 'O': 3.0}\",\"('O', 'Sm', 'Ti')\",OTHERS,False\nmvc-10170,\"{'Mg': 4.0, 'Cu': 8.0, 'Te': 8.0, 'O': 32.0}\",\"('Cu', 'Mg', 'O', 'Te')\",OTHERS,False\nmp-1225530,\"{'Dy': 1.0, 'Ho': 1.0, 'Mn': 4.0}\",\"('Dy', 'Ho', 'Mn')\",OTHERS,False\nmp-1079825,\"{'Ca': 1.0, 'Ti': 2.0, 'O': 6.0}\",\"('Ca', 'O', 'Ti')\",OTHERS,False\nmp-21071,\"{'Eu': 2.0, 'S': 1.0, 'O': 2.0}\",\"('Eu', 'O', 'S')\",OTHERS,False\nmp-31040,\"{'Cl': 8.0, 'Nb': 2.0}\",\"('Cl', 'Nb')\",OTHERS,False\nmp-1030745,\"{'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 6.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-6328,\"{'O': 1.0, 'Na': 2.0, 'Ti': 2.0, 'Sb': 2.0}\",\"('Na', 'O', 'Sb', 'Ti')\",OTHERS,False\nmp-1185443,\"{'Li': 1.0, 'Yb': 1.0, 'Pb': 2.0}\",\"('Li', 'Pb', 'Yb')\",OTHERS,False\nmp-1029679,\"{'Ba': 2.0, 'Ge': 14.0, 'N': 20.0}\",\"('Ba', 'Ge', 'N')\",OTHERS,False\nmp-1184015,\"{'Ga': 2.0, 'C': 2.0}\",\"('C', 'Ga')\",OTHERS,False\nmp-1205204,\"{'Zn': 8.0, 'Ni': 4.0, 'P': 8.0, 'H': 32.0, 'O': 48.0}\",\"('H', 'Ni', 'O', 'P', 'Zn')\",OTHERS,False\nmp-1096661,\"{'Hf': 2.0, 'Nb': 1.0, 'Ir': 1.0}\",\"('Hf', 'Ir', 'Nb')\",OTHERS,False\nmp-1208206,\"{'Tm': 10.0, 'In': 8.0}\",\"('In', 'Tm')\",OTHERS,False\nmp-865138,\"{'Hf': 2.0, 'Mn': 1.0, 'Ir': 1.0}\",\"('Hf', 'Ir', 'Mn')\",OTHERS,False\nmp-864789,\"{'Yb': 2.0, 'Sn': 1.0, 'Hg': 1.0}\",\"('Hg', 'Sn', 'Yb')\",OTHERS,False\nmp-704745,\"{'Cu': 8.0, 'O': 1.0}\",\"('Cu', 'O')\",OTHERS,False\nmp-1218378,\"{'Sr': 4.0, 'Br': 1.0, 'N': 2.0, 'Cl': 1.0}\",\"('Br', 'Cl', 'N', 'Sr')\",OTHERS,False\nmp-1226014,\"{'Co': 4.0, 'P': 4.0, 'Se': 4.0}\",\"('Co', 'P', 'Se')\",OTHERS,False\nmp-16479,\"{'S': 4.0, 'Yb': 2.0}\",\"('S', 'Yb')\",OTHERS,False\nmp-766711,\"{'Li': 16.0, 'Si': 8.0, 'Ni': 8.0, 'O': 32.0}\",\"('Li', 'Ni', 'O', 'Si')\",OTHERS,False\nmp-560894,\"{'Li': 8.0, 'Be': 6.0, 'P': 6.0, 'Cl': 2.0, 'O': 24.0}\",\"('Be', 'Cl', 'Li', 'O', 'P')\",OTHERS,False\nmp-1027358,\"{'Te': 4.0, 'Mo': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Te')\",OTHERS,False\nmp-1222061,\"{'Mg': 1.0, 'Al': 1.0, 'Cr': 3.0, 'Fe': 1.0, 'O': 8.0}\",\"('Al', 'Cr', 'Fe', 'Mg', 'O')\",OTHERS,False\nmp-1195450,\"{'Li': 8.0, 'Ca': 4.0, 'B': 32.0, 'H': 28.0, 'O': 70.0}\",\"('B', 'Ca', 'H', 'Li', 'O')\",OTHERS,False\nmp-1245994,\"{'Al': 2.0, 'Cr': 4.0, 'N': 6.0}\",\"('Al', 'Cr', 'N')\",OTHERS,False\nmp-1226126,\"{'Co': 1.0, 'Re': 2.0, 'Mo': 2.0, 'S': 8.0}\",\"('Co', 'Mo', 'Re', 'S')\",OTHERS,False\nmp-707110,\"{'Co': 12.0, 'C': 28.0, 'S': 8.0, 'O': 28.0}\",\"('C', 'Co', 'O', 'S')\",OTHERS,False\nmp-20543,\"{'C': 1.0, 'Sn': 1.0, 'Pr': 3.0}\",\"('C', 'Pr', 'Sn')\",OTHERS,False\nmp-765036,\"{'Li': 4.0, 'Mn': 2.0, 'O': 2.0, 'F': 6.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-14665,\"{'O': 32.0, 'S': 8.0, 'K': 4.0, 'Nd': 4.0}\",\"('K', 'Nd', 'O', 'S')\",OTHERS,False\nmp-1175158,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1186532,\"{'Pm': 3.0, 'Ti': 1.0}\",\"('Pm', 'Ti')\",OTHERS,False\nmp-1175088,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-571448,\"{'Cs': 2.0, 'Pu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Pu')\",OTHERS,False\nmp-5518,\"{'Ga': 2.0, 'Se': 4.0, 'Ag': 2.0}\",\"('Ag', 'Ga', 'Se')\",OTHERS,False\nmp-849423,\"{'Li': 6.0, 'Mn': 3.0, 'V': 3.0, 'P': 6.0, 'H': 6.0, 'O': 30.0}\",\"('H', 'Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-761204,\"{'Li': 12.0, 'Mn': 2.0, 'V': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1113566,\"{'Eu': 1.0, 'Cs': 2.0, 'Ag': 1.0, 'Cl': 6.0}\",\"('Ag', 'Cl', 'Cs', 'Eu')\",OTHERS,False\nmp-1190904,\"{'Tb': 12.0, 'Si': 8.0, 'Ni': 4.0}\",\"('Ni', 'Si', 'Tb')\",OTHERS,False\nmp-760091,\"{'Nb': 8.0, 'S': 16.0, 'O': 64.0}\",\"('Nb', 'O', 'S')\",OTHERS,False\nmp-1225825,\"{'La': 3.0, 'Gd': 1.0, 'Br': 4.0, 'O': 4.0}\",\"('Br', 'Gd', 'La', 'O')\",OTHERS,False\nmp-551135,\"{'O': 5.0, 'B': 2.0, 'Cu': 1.0, 'Ba': 1.0}\",\"('B', 'Ba', 'Cu', 'O')\",OTHERS,False\nmp-1079059,\"{'Er': 4.0, 'In': 2.0, 'Au': 4.0}\",\"('Au', 'Er', 'In')\",OTHERS,False\nmp-69,{'Sm': 4.0},\"('Sm',)\",OTHERS,False\nmp-779428,\"{'Sr': 8.0, 'Hf': 2.0, 'O': 12.0}\",\"('Hf', 'O', 'Sr')\",OTHERS,False\nmp-1245132,\"{'Ga': 50.0, 'N': 50.0}\",\"('Ga', 'N')\",OTHERS,False\nmp-1095025,\"{'Pr': 1.0, 'Cr': 2.0, 'B': 6.0}\",\"('B', 'Cr', 'Pr')\",OTHERS,False\nmp-24,{'C': 8.0},\"('C',)\",OTHERS,False\nmp-1093899,\"{'Zr': 1.0, 'Cd': 1.0, 'Pt': 2.0}\",\"('Cd', 'Pt', 'Zr')\",OTHERS,False\nmp-778102,\"{'Ba': 4.0, 'Y': 4.0, 'F': 20.0}\",\"('Ba', 'F', 'Y')\",OTHERS,False\nmp-758280,\"{'Li': 2.0, 'V': 3.0, 'C': 6.0, 'O': 18.0}\",\"('C', 'Li', 'O', 'V')\",OTHERS,False\nmvc-6533,\"{'Ca': 2.0, 'W': 4.0, 'O': 8.0}\",\"('Ca', 'O', 'W')\",OTHERS,False\nmp-1078100,\"{'Cd': 1.0, 'P': 1.0, 'Pd': 5.0}\",\"('Cd', 'P', 'Pd')\",OTHERS,False\nmp-690014,\"{'Ni': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Ni', 'O', 'P')\",OTHERS,False\nmp-1096129,\"{'La': 2.0, 'Hg': 1.0, 'Ru': 1.0}\",\"('Hg', 'La', 'Ru')\",OTHERS,False\nmp-1080452,\"{'K': 1.0, 'Cd': 4.0, 'As': 3.0}\",\"('As', 'Cd', 'K')\",OTHERS,False\nmp-629397,\"{'Fe': 1.0, 'Ni': 1.0, 'N': 1.0}\",\"('Fe', 'N', 'Ni')\",OTHERS,False\nmp-1193017,\"{'Gd': 6.0, 'Zn': 23.0}\",\"('Gd', 'Zn')\",OTHERS,False\nmp-771304,\"{'Li': 6.0, 'Si': 2.0, 'Sb': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Li', 'O', 'Sb', 'Si')\",OTHERS,False\nmp-1206263,\"{'Tm': 3.0, 'Mg': 3.0, 'Ag': 3.0}\",\"('Ag', 'Mg', 'Tm')\",OTHERS,False\nmp-1027051,\"{'Mo': 3.0, 'W': 1.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-1194116,\"{'Ce': 4.0, 'Mo': 4.0, 'Br': 4.0, 'O': 16.0}\",\"('Br', 'Ce', 'Mo', 'O')\",OTHERS,False\nmp-1200004,\"{'Ho': 18.0, 'C': 18.0, 'O': 72.0}\",\"('C', 'Ho', 'O')\",OTHERS,False\nmp-31426,\"{'Ni': 3.0, 'In': 3.0, 'Ho': 3.0}\",\"('Ho', 'In', 'Ni')\",OTHERS,False\nmp-11334,{'W': 8.0},\"('W',)\",OTHERS,False\nmp-674343,\"{'Ti': 10.0, 'Cu': 7.0, 'S': 20.0}\",\"('Cu', 'S', 'Ti')\",OTHERS,False\nmp-984744,\"{'Ca': 6.0, 'Tl': 2.0}\",\"('Ca', 'Tl')\",OTHERS,False\nmp-1072798,\"{'Er': 2.0, 'Al': 2.0, 'Zn': 2.0}\",\"('Al', 'Er', 'Zn')\",OTHERS,False\nmp-553972,\"{'Cu': 8.0, 'C': 8.0, 'S': 8.0, 'N': 8.0}\",\"('C', 'Cu', 'N', 'S')\",OTHERS,False\nmp-1179159,\"{'Tl': 2.0, 'C': 8.0, 'S': 8.0, 'N': 2.0}\",\"('C', 'N', 'S', 'Tl')\",OTHERS,False\nmp-7723,\"{'F': 4.0, 'Na': 1.0, 'Al': 1.0}\",\"('Al', 'F', 'Na')\",OTHERS,False\nmp-1102615,\"{'Ce': 4.0, 'Te': 4.0, 'Cl': 4.0}\",\"('Ce', 'Cl', 'Te')\",OTHERS,False\nmp-754254,\"{'P': 4.0, 'W': 2.0, 'O': 16.0}\",\"('O', 'P', 'W')\",OTHERS,False\nmp-505611,\"{'O': 2.0, 'S': 2.0, 'Ni': 1.0, 'Cu': 2.0, 'Sr': 2.0}\",\"('Cu', 'Ni', 'O', 'S', 'Sr')\",OTHERS,False\nmp-1114383,\"{'Rb': 2.0, 'Tl': 2.0, 'I': 6.0}\",\"('I', 'Rb', 'Tl')\",OTHERS,False\nmp-1215213,\"{'Zr': 1.0, 'Ta': 1.0, 'Cr': 4.0}\",\"('Cr', 'Ta', 'Zr')\",OTHERS,False\nmvc-16046,\"{'Sr': 3.0, 'Mg': 1.0, 'Mn': 2.0, 'S': 2.0, 'O': 5.0}\",\"('Mg', 'Mn', 'O', 'S', 'Sr')\",OTHERS,False\nmp-1207675,\"{'Tm': 4.0, 'Si': 4.0, 'Ir': 4.0}\",\"('Ir', 'Si', 'Tm')\",OTHERS,False\nmp-777475,\"{'Li': 6.0, 'Fe': 2.0, 'F': 12.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-1007685,\"{'In': 1.0, 'Ag': 1.0, 'Se': 2.0}\",\"('Ag', 'In', 'Se')\",OTHERS,False\nmp-26745,\"{'Li': 2.0, 'Sb': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-755301,\"{'Ni': 6.0, 'O': 1.0, 'F': 11.0}\",\"('F', 'Ni', 'O')\",OTHERS,False\nmp-28241,\"{'Zr': 6.0, 'I': 12.0}\",\"('I', 'Zr')\",OTHERS,False\nmp-1191093,\"{'Gd': 2.0, 'Fe': 17.0, 'H': 3.0}\",\"('Fe', 'Gd', 'H')\",OTHERS,False\nmp-1026440,\"{'Hf': 1.0, 'Mg': 14.0, 'Cd': 1.0}\",\"('Cd', 'Hf', 'Mg')\",OTHERS,False\nmp-753398,\"{'W': 4.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'O', 'W')\",OTHERS,False\nmp-1001918,\"{'Hf': 1.0, 'C': 1.0}\",\"('C', 'Hf')\",OTHERS,False\nmp-28828,\"{'Li': 6.0, 'Cl': 8.0, 'Fe': 1.0}\",\"('Cl', 'Fe', 'Li')\",OTHERS,False\nmp-546007,\"{'La': 2.0, 'Mo': 1.0, 'O': 6.0}\",\"('La', 'Mo', 'O')\",OTHERS,False\nmp-1038045,\"{'Ca': 1.0, 'Mg': 30.0, 'Fe': 1.0, 'O': 32.0}\",\"('Ca', 'Fe', 'Mg', 'O')\",OTHERS,False\nmp-972423,\"{'Tb': 2.0, 'Ga': 4.0, 'Pd': 2.0}\",\"('Ga', 'Pd', 'Tb')\",OTHERS,False\nmp-753334,\"{'V': 4.0, 'O': 7.0, 'F': 5.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-1229107,\"{'Ag': 3.0, 'Sn': 1.0}\",\"('Ag', 'Sn')\",OTHERS,False\nmp-1210906,\"{'Na': 2.0, 'Mn': 1.0, 'Sb': 2.0}\",\"('Mn', 'Na', 'Sb')\",OTHERS,False\nmp-20836,\"{'Ni': 4.0, 'As': 4.0, 'Nd': 2.0}\",\"('As', 'Nd', 'Ni')\",OTHERS,False\nmp-1098064,\"{'Cs': 1.0, 'Hf': 1.0, 'Mg': 14.0, 'O': 15.0}\",\"('Cs', 'Hf', 'Mg', 'O')\",OTHERS,False\nmp-20857,\"{'B': 4.0, 'Co': 4.0}\",\"('B', 'Co')\",OTHERS,False\nmp-1186267,\"{'Nd': 6.0, 'Er': 2.0}\",\"('Er', 'Nd')\",OTHERS,False\nmp-29997,\"{'As': 4.0, 'I': 12.0, 'La': 12.0}\",\"('As', 'I', 'La')\",OTHERS,False\nmp-41701,\"{'Li': 2.0, 'Co': 4.0, 'P': 8.0, 'H': 6.0, 'O': 28.0}\",\"('Co', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-23965,\"{'H': 16.0, 'O': 8.0, 'Co': 2.0, 'Br': 4.0}\",\"('Br', 'Co', 'H', 'O')\",OTHERS,False\nmp-569819,\"{'Th': 14.0, 'Os': 6.0}\",\"('Os', 'Th')\",OTHERS,False\nmp-21547,\"{'Na': 24.0, 'In': 8.0, 'Sb': 16.0}\",\"('In', 'Na', 'Sb')\",OTHERS,False\nmp-1192391,\"{'Rb': 2.0, 'Li': 4.0, 'Cd': 2.0, 'C': 4.0, 'O': 12.0, 'F': 2.0}\",\"('C', 'Cd', 'F', 'Li', 'O', 'Rb')\",OTHERS,False\nmp-1183106,\"{'Ac': 2.0, 'Zn': 1.0, 'In': 1.0}\",\"('Ac', 'In', 'Zn')\",OTHERS,False\nmp-1207531,\"{'Zn': 12.0, 'B': 28.0, 'I': 4.0, 'O': 52.0}\",\"('B', 'I', 'O', 'Zn')\",OTHERS,False\nmp-771902,\"{'Li': 4.0, 'Ti': 3.0, 'Cr': 2.0, 'Fe': 3.0, 'O': 16.0}\",\"('Cr', 'Fe', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-751967,\"{'V': 8.0, 'Ni': 4.0, 'P': 8.0, 'H': 24.0, 'O': 52.0}\",\"('H', 'Ni', 'O', 'P', 'V')\",OTHERS,False\nmp-13002,\"{'F': 12.0, 'Si': 2.0, 'K': 4.0}\",\"('F', 'K', 'Si')\",OTHERS,False\nmp-1222646,\"{'Li': 2.0, 'Mg': 1.0, 'Hg': 1.0}\",\"('Hg', 'Li', 'Mg')\",OTHERS,False\nmp-1105961,\"{'Th': 4.0, 'Ta': 4.0, 'N': 12.0}\",\"('N', 'Ta', 'Th')\",OTHERS,False\nmp-775811,\"{'Li': 4.0, 'V': 4.0, 'Fe': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'V')\",OTHERS,False\nmvc-4608,\"{'Y': 2.0, 'Cr': 4.0, 'O': 8.0}\",\"('Cr', 'O', 'Y')\",OTHERS,False\nmp-555458,\"{'Ba': 4.0, 'Fe': 2.0, 'S': 4.0, 'I': 5.0}\",\"('Ba', 'Fe', 'I', 'S')\",OTHERS,False\nmp-7167,\"{'C': 1.0, 'Rh': 3.0, 'Sm': 1.0}\",\"('C', 'Rh', 'Sm')\",OTHERS,False\nmp-755965,\"{'Li': 2.0, 'Ti': 2.0, 'Fe': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-982730,\"{'Ho': 2.0, 'Zn': 1.0, 'Ir': 1.0}\",\"('Ho', 'Ir', 'Zn')\",OTHERS,False\nmp-561398,\"{'Na': 2.0, 'Al': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Al', 'Mo', 'Na', 'O')\",OTHERS,False\nmp-766887,\"{'Li': 13.0, 'Co': 15.0, 'O': 28.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-755278,\"{'Li': 2.0, 'V': 1.0, 'Cr': 1.0, 'O': 4.0}\",\"('Cr', 'Li', 'O', 'V')\",OTHERS,False\nmp-777897,\"{'Li': 4.0, 'Ti': 2.0, 'V': 3.0, 'Cu': 3.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'Ti', 'V')\",OTHERS,False\nmp-1205148,\"{'Pr': 2.0, 'H': 40.0, 'S': 8.0, 'N': 10.0, 'O': 32.0}\",\"('H', 'N', 'O', 'Pr', 'S')\",OTHERS,False\nmp-560577,\"{'F': 28.0, 'Ca': 4.0, 'Cr': 4.0, 'Ba': 4.0}\",\"('Ba', 'Ca', 'Cr', 'F')\",OTHERS,False\nmp-754198,\"{'Ba': 1.0, 'La': 2.0, 'I': 8.0}\",\"('Ba', 'I', 'La')\",OTHERS,False\nmp-777464,\"{'Li': 4.0, 'Ti': 5.0, 'Cr': 3.0, 'O': 16.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-755995,\"{'P': 4.0, 'W': 2.0, 'O': 14.0}\",\"('O', 'P', 'W')\",OTHERS,False\nmp-1221200,\"{'Na': 8.0, 'Li': 8.0, 'Mn': 2.0, 'Fe': 6.0, 'P': 8.0, 'O': 32.0, 'F': 8.0}\",\"('F', 'Fe', 'Li', 'Mn', 'Na', 'O', 'P')\",OTHERS,False\nmp-1029396,\"{'Sr': 2.0, 'Hf': 2.0, 'N': 4.0}\",\"('Hf', 'N', 'Sr')\",OTHERS,False\nmvc-15700,\"{'Te': 1.0, 'F': 6.0}\",\"('F', 'Te')\",OTHERS,False\nmp-10141,\"{'B': 2.0, 'Sm': 1.0}\",\"('B', 'Sm')\",OTHERS,False\nmp-1225916,\"{'Cs': 2.0, 'C': 2.0, 'N': 2.0, 'O': 2.0}\",\"('C', 'Cs', 'N', 'O')\",OTHERS,False\nmp-570369,\"{'Ce': 32.0, 'Ru': 18.0}\",\"('Ce', 'Ru')\",OTHERS,False\nmp-673174,\"{'Fe': 24.0, 'N': 9.0}\",\"('Fe', 'N')\",OTHERS,False\nmp-771034,\"{'Li': 6.0, 'Mn': 2.0, 'As': 2.0, 'C': 2.0, 'O': 14.0}\",\"('As', 'C', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-983556,\"{'Er': 2.0, 'Mg': 1.0, 'Tl': 1.0}\",\"('Er', 'Mg', 'Tl')\",OTHERS,False\nmp-1238813,\"{'Li': 2.0, 'Cr': 4.0, 'S': 8.0}\",\"('Cr', 'Li', 'S')\",OTHERS,False\nmp-669471,\"{'Hg': 4.0, 'S': 16.0, 'N': 12.0, 'Cl': 12.0}\",\"('Cl', 'Hg', 'N', 'S')\",OTHERS,False\nmp-752571,\"{'Li': 5.0, 'Co': 7.0, 'O': 3.0, 'F': 13.0}\",\"('Co', 'F', 'Li', 'O')\",OTHERS,False\nmp-532220,\"{'Cr': 48.0, 'Dy': 16.0, 'S': 96.0}\",\"('Cr', 'Dy', 'S')\",OTHERS,False\nmp-1029256,\"{'Te': 8.0, 'Mo': 2.0, 'W': 2.0}\",\"('Mo', 'Te', 'W')\",OTHERS,False\nmp-554665,\"{'Si': 8.0, 'O': 16.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1184254,\"{'Ga': 1.0, 'Pd': 3.0}\",\"('Ga', 'Pd')\",OTHERS,False\nmp-1192847,\"{'Ho': 6.0, 'Zn': 23.0}\",\"('Ho', 'Zn')\",OTHERS,False\nmp-5788,\"{'Na': 4.0, 'U': 4.0, 'O': 12.0}\",\"('Na', 'O', 'U')\",OTHERS,False\nmp-19805,\"{'Ge': 2.0, 'Pt': 2.0, 'U': 1.0}\",\"('Ge', 'Pt', 'U')\",OTHERS,False\nmp-558592,\"{'Sb': 32.0, 'Br': 8.0, 'O': 44.0}\",\"('Br', 'O', 'Sb')\",OTHERS,False\nmp-1206332,\"{'Sr': 2.0, 'La': 1.0, 'Sb': 1.0, 'O': 6.0}\",\"('La', 'O', 'Sb', 'Sr')\",OTHERS,False\nmp-1070394,\"{'Ce': 1.0, 'Si': 3.0, 'Rh': 1.0}\",\"('Ce', 'Rh', 'Si')\",OTHERS,False\nmp-1214183,\"{'Ca': 12.0, 'Al': 86.0, 'W': 8.0}\",\"('Al', 'Ca', 'W')\",OTHERS,False\nmp-1204837,\"{'Na': 4.0, 'Fe': 8.0, 'Si': 24.0, 'O': 60.0}\",\"('Fe', 'Na', 'O', 'Si')\",OTHERS,False\nmp-684496,\"{'Sb': 4.0, 'P': 8.0, 'O': 28.0}\",\"('O', 'P', 'Sb')\",OTHERS,False\nmp-1246291,\"{'Dy': 2.0, 'Mg': 2.0, 'W': 2.0, 'S': 8.0}\",\"('Dy', 'Mg', 'S', 'W')\",OTHERS,False\nmp-1038514,\"{'Hf': 1.0, 'Mg': 30.0, 'Cd': 1.0, 'O': 32.0}\",\"('Cd', 'Hf', 'Mg', 'O')\",OTHERS,False\nmp-850751,\"{'Li': 4.0, 'V': 4.0, 'P': 8.0, 'H': 8.0, 'O': 32.0}\",\"('H', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1102068,\"{'Dy': 4.0, 'As': 4.0, 'Pd': 4.0}\",\"('As', 'Dy', 'Pd')\",OTHERS,False\nmp-981262,\"{'Yb': 2.0, 'F': 2.0}\",\"('F', 'Yb')\",OTHERS,False\nmp-1184403,\"{'Gd': 2.0, 'Al': 1.0, 'Cd': 1.0}\",\"('Al', 'Cd', 'Gd')\",OTHERS,False\nmvc-3750,\"{'Mg': 4.0, 'Mo': 4.0, 'F': 20.0}\",\"('F', 'Mg', 'Mo')\",OTHERS,False\nmp-756919,\"{'Mg': 6.0, 'As': 4.0, 'O': 16.0}\",\"('As', 'Mg', 'O')\",OTHERS,False\nmp-1099096,\"{'Ce': 1.0, 'Mg': 14.0, 'Cd': 1.0}\",\"('Cd', 'Ce', 'Mg')\",OTHERS,False\nmp-866108,\"{'Hf': 2.0, 'Zn': 6.0}\",\"('Hf', 'Zn')\",OTHERS,False\nmp-1232334,\"{'Sr': 3.0, 'Cu': 2.0, 'O': 4.0, 'F': 4.0}\",\"('Cu', 'F', 'O', 'Sr')\",OTHERS,False\nmp-21372,\"{'O': 2.0, 'P': 2.0, 'Ru': 2.0, 'Ce': 2.0}\",\"('Ce', 'O', 'P', 'Ru')\",OTHERS,False\nmp-9518,\"{'O': 2.0, 'P': 2.0, 'Zn': 2.0, 'Nd': 2.0}\",\"('Nd', 'O', 'P', 'Zn')\",OTHERS,False\nmp-1219419,\"{'Sc': 5.0, 'P': 12.0, 'Ir': 19.0}\",\"('Ir', 'P', 'Sc')\",OTHERS,False\nmp-863697,\"{'Pm': 2.0, 'Li': 1.0, 'Si': 1.0}\",\"('Li', 'Pm', 'Si')\",OTHERS,False\nmp-755334,\"{'Co': 6.0, 'O': 4.0, 'F': 8.0}\",\"('Co', 'F', 'O')\",OTHERS,False\nmp-769649,\"{'Gd': 2.0, 'Ta': 6.0, 'O': 18.0}\",\"('Gd', 'O', 'Ta')\",OTHERS,False\nmp-1211869,\"{'La': 12.0, 'Sc': 8.0, 'Ga': 12.0, 'O': 48.0}\",\"('Ga', 'La', 'O', 'Sc')\",OTHERS,False\nmp-1216689,\"{'Tl': 1.0, 'Cr': 5.0, 'Te': 8.0}\",\"('Cr', 'Te', 'Tl')\",OTHERS,False\nmp-1236984,\"{'Na': 2.0, 'Mg': 4.0, 'S': 6.0, 'O': 24.0}\",\"('Mg', 'Na', 'O', 'S')\",OTHERS,False\nmp-1251411,\"{'Na': 4.0, 'Al': 4.0, 'H': 32.0, 'N': 16.0}\",\"('Al', 'H', 'N', 'Na')\",OTHERS,False\nmp-762052,\"{'Na': 4.0, 'Ga': 22.0, 'O': 34.0}\",\"('Ga', 'Na', 'O')\",OTHERS,False\nmp-1214838,\"{'Al': 18.0, 'Cr': 6.0, 'Si': 2.0}\",\"('Al', 'Cr', 'Si')\",OTHERS,False\nmp-1247387,\"{'Li': 12.0, 'C': 4.0, 'N': 8.0}\",\"('C', 'Li', 'N')\",OTHERS,False\nmp-1014296,\"{'C': 6.0, 'N': 2.0}\",\"('C', 'N')\",OTHERS,False\nmp-1247156,\"{'Co': 1.0, 'Ni': 2.0, 'N': 2.0}\",\"('Co', 'N', 'Ni')\",OTHERS,False\nmp-1079296,\"{'Hf': 2.0, 'Au': 6.0}\",\"('Au', 'Hf')\",OTHERS,False\nmp-569698,\"{'U': 1.0, 'Al': 2.0, 'Pd': 5.0}\",\"('Al', 'Pd', 'U')\",OTHERS,False\nmp-31456,\"{'Ru': 1.0, 'Sb': 1.0, 'Hf': 1.0}\",\"('Hf', 'Ru', 'Sb')\",OTHERS,False\nmp-1014993,\"{'Cr': 4.0, 'N': 8.0}\",\"('Cr', 'N')\",OTHERS,False\nmp-1173467,\"{'Rb': 2.0, 'Na': 2.0, 'Mg': 10.0, 'Si': 24.0, 'O': 60.0}\",\"('Mg', 'Na', 'O', 'Rb', 'Si')\",OTHERS,False\nmp-780172,\"{'Tm': 8.0, 'Te': 4.0, 'O': 24.0}\",\"('O', 'Te', 'Tm')\",OTHERS,False\nmp-753051,\"{'Li': 2.0, 'Cr': 2.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('Cr', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-677074,\"{'Pb': 2.0, 'O': 2.0}\",\"('O', 'Pb')\",OTHERS,False\nmp-26739,\"{'Cr': 8.0, 'Li': 12.0, 'O': 48.0, 'P': 12.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1232447,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1245775,\"{'Sr': 12.0, 'Ta': 8.0, 'N': 16.0}\",\"('N', 'Sr', 'Ta')\",OTHERS,False\nmp-26532,\"{'O': 20.0, 'P': 6.0, 'Cu': 4.0}\",\"('Cu', 'O', 'P')\",OTHERS,False\nmp-1523,\"{'P': 8.0, 'Zr': 4.0}\",\"('P', 'Zr')\",OTHERS,False\nmp-21268,\"{'Si': 4.0, 'As': 8.0}\",\"('As', 'Si')\",OTHERS,False\nmp-1228516,\"{'Ba': 2.0, 'Nd': 2.0, 'Fe': 1.0, 'Co': 3.0, 'O': 12.0}\",\"('Ba', 'Co', 'Fe', 'Nd', 'O')\",OTHERS,False\nmp-17546,\"{'O': 16.0, 'Ru': 4.0, 'Cs': 8.0}\",\"('Cs', 'O', 'Ru')\",OTHERS,False\nmp-30978,\"{'Al': 8.0, 'K': 4.0, 'Br': 28.0}\",\"('Al', 'Br', 'K')\",OTHERS,False\nmp-1246166,\"{'Zr': 1.0, 'Fe': 2.0, 'N': 2.0}\",\"('Fe', 'N', 'Zr')\",OTHERS,False\nmvc-2922,\"{'Ca': 4.0, 'Mn': 4.0, 'O': 8.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,False\nmp-1194311,\"{'Sc': 3.0, 'Ni': 20.0, 'B': 6.0}\",\"('B', 'Ni', 'Sc')\",OTHERS,False\nmp-1183956,\"{'Cs': 2.0, 'La': 2.0}\",\"('Cs', 'La')\",OTHERS,False\nmp-510471,\"{'Cu': 4.0, 'Gd': 4.0, 'S': 8.0}\",\"('Cu', 'Gd', 'S')\",OTHERS,False\nmp-560637,\"{'Ga': 8.0, 'S': 40.0, 'N': 40.0, 'Cl': 32.0}\",\"('Cl', 'Ga', 'N', 'S')\",OTHERS,False\nmp-1201689,\"{'La': 8.0, 'Ni': 24.0, 'B': 8.0}\",\"('B', 'La', 'Ni')\",OTHERS,False\nmp-1078916,\"{'Tm': 4.0, 'In': 2.0, 'Cu': 4.0}\",\"('Cu', 'In', 'Tm')\",OTHERS,False\nmp-1098545,\"{'Sr': 1.0, 'Hf': 1.0, 'Mg': 30.0, 'O': 32.0}\",\"('Hf', 'Mg', 'O', 'Sr')\",OTHERS,False\nmp-1201234,\"{'Cu': 4.0, 'H': 32.0, 'S': 12.0, 'O': 40.0}\",\"('Cu', 'H', 'O', 'S')\",OTHERS,False\nmp-644245,\"{'Na': 4.0, 'P': 2.0, 'H': 6.0, 'O': 10.0}\",\"('H', 'Na', 'O', 'P')\",OTHERS,False\nmp-1196828,\"{'Na': 4.0, 'Li': 4.0, 'Mg': 4.0, 'P': 4.0, 'O': 16.0, 'F': 4.0}\",\"('F', 'Li', 'Mg', 'Na', 'O', 'P')\",OTHERS,False\nmp-772972,\"{'Li': 8.0, 'Ti': 8.0, 'O': 20.0}\",\"('Li', 'O', 'Ti')\",OTHERS,False\nmp-752698,\"{'Li': 4.0, 'Cr': 2.0, 'Cu': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Cr', 'Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-24118,\"{'H': 20.0, 'O': 16.0, 'S': 2.0}\",\"('H', 'O', 'S')\",OTHERS,False\nmp-1079367,\"{'U': 3.0, 'Al': 3.0, 'Co': 3.0}\",\"('Al', 'Co', 'U')\",OTHERS,False\nmp-1182361,\"{'Ba': 2.0, 'B': 10.0, 'O': 20.0}\",\"('B', 'Ba', 'O')\",OTHERS,False\nmp-12464,\"{'Co': 2.0, 'Se': 4.0, 'Pd': 4.0}\",\"('Co', 'Pd', 'Se')\",OTHERS,False\nmp-1223550,\"{'K': 1.0, 'P': 4.0, 'N': 3.0, 'O': 16.0}\",\"('K', 'N', 'O', 'P')\",OTHERS,False\nmp-765515,\"{'Li': 1.0, 'Co': 15.0, 'O': 16.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1183449,\"{'Be': 1.0, 'V': 1.0, 'O': 3.0}\",\"('Be', 'O', 'V')\",OTHERS,False\nmp-237,\"{'Te': 1.0, 'Tm': 1.0}\",\"('Te', 'Tm')\",OTHERS,False\nmp-1103859,\"{'Tl': 1.0, 'Mo': 6.0, 'S': 8.0}\",\"('Mo', 'S', 'Tl')\",OTHERS,False\nmp-15257,\"{'Se': 12.0, 'Tb': 8.0}\",\"('Se', 'Tb')\",OTHERS,False\nmp-1185847,\"{'Mg': 1.0, 'Bi': 1.0, 'O': 3.0}\",\"('Bi', 'Mg', 'O')\",OTHERS,False\nmvc-353,\"{'Ba': 2.0, 'Tl': 2.0, 'Co': 4.0, 'O': 12.0}\",\"('Ba', 'Co', 'O', 'Tl')\",OTHERS,False\nmp-637220,\"{'Gd': 2.0, 'Si': 4.0, 'Pt': 4.0}\",\"('Gd', 'Pt', 'Si')\",OTHERS,False\nmp-29536,\"{'C': 4.0, 'F': 16.0, 'Ag': 20.0}\",\"('Ag', 'C', 'F')\",OTHERS,False\nmp-27100,\"{'Cr': 8.0, 'O': 52.0, 'P': 12.0}\",\"('Cr', 'O', 'P')\",OTHERS,False\nmp-1211688,\"{'K': 2.0, 'Li': 2.0, 'Ho': 4.0, 'Mo': 8.0, 'O': 32.0}\",\"('Ho', 'K', 'Li', 'Mo', 'O')\",OTHERS,False\nmp-29979,\"{'B': 6.0, 'C': 2.0, 'Nb': 6.0}\",\"('B', 'C', 'Nb')\",OTHERS,False\nmp-1247586,\"{'Sr': 1.0, 'Ca': 7.0, 'Mn': 6.0, 'Cr': 2.0, 'O': 21.0}\",\"('Ca', 'Cr', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-21526,\"{'K': 16.0, 'Pb': 16.0}\",\"('K', 'Pb')\",OTHERS,False\nmp-1080388,\"{'Pu': 1.0, 'Pt': 5.0}\",\"('Pt', 'Pu')\",OTHERS,False\nmp-770537,\"{'Li': 4.0, 'Mn': 8.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-707040,\"{'Ca': 2.0, 'Al': 4.0, 'H': 32.0, 'N': 18.0}\",\"('Al', 'Ca', 'H', 'N')\",OTHERS,False\nmp-568685,\"{'Tm': 4.0, 'Al': 4.0, 'Rh': 4.0}\",\"('Al', 'Rh', 'Tm')\",OTHERS,False\nmp-779987,\"{'Fe': 6.0, 'O': 2.0, 'F': 10.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-8456,\"{'As': 2.0, 'Sr': 2.0, 'Pt': 2.0}\",\"('As', 'Pt', 'Sr')\",OTHERS,False\nmp-775274,\"{'K': 8.0, 'Cr': 4.0, 'O': 16.0}\",\"('Cr', 'K', 'O')\",OTHERS,False\nmp-753971,\"{'Li': 5.0, 'Fe': 1.0, 'Ni': 4.0, 'O': 10.0}\",\"('Fe', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-504748,\"{'Pb': 10.0, 'P': 6.0, 'O': 24.0, 'Cl': 2.0}\",\"('Cl', 'O', 'P', 'Pb')\",OTHERS,False\nmp-1228616,\"{'Ba': 4.0, 'Pb': 8.0, 'S': 12.0, 'O': 48.0}\",\"('Ba', 'O', 'Pb', 'S')\",OTHERS,False\nmp-1210400,\"{'Na': 6.0, 'Li': 2.0, 'Ti': 4.0, 'F': 24.0}\",\"('F', 'Li', 'Na', 'Ti')\",OTHERS,False\nmp-22784,\"{'Ni': 3.0, 'In': 1.0}\",\"('In', 'Ni')\",OTHERS,False\nmp-780690,\"{'Co': 6.0, 'O': 8.0, 'F': 4.0}\",\"('Co', 'F', 'O')\",OTHERS,False\nmp-744713,\"{'Na': 4.0, 'Fe': 12.0, 'P': 8.0, 'H': 32.0, 'O': 56.0}\",\"('Fe', 'H', 'Na', 'O', 'P')\",OTHERS,False\nmp-770328,\"{'Li': 8.0, 'Cr': 6.0, 'Fe': 2.0, 'O': 16.0}\",\"('Cr', 'Fe', 'Li', 'O')\",OTHERS,False\nmvc-6159,\"{'Ca': 4.0, 'Y': 2.0, 'Sb': 2.0, 'O': 10.0}\",\"('Ca', 'O', 'Sb', 'Y')\",OTHERS,False\nmp-1099308,\"{'Ba': 1.0, 'Li': 1.0, 'Mg': 6.0}\",\"('Ba', 'Li', 'Mg')\",OTHERS,False\nmp-552185,\"{'O': 6.0, 'N': 2.0, 'Ag': 2.0}\",\"('Ag', 'N', 'O')\",OTHERS,False\nmp-1175655,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-866021,\"{'Eu': 1.0, 'In': 1.0, 'Au': 2.0}\",\"('Au', 'Eu', 'In')\",OTHERS,False\nmp-1100441,\"{'Cr': 1.0, 'Cu': 1.0, 'B': 1.0}\",\"('B', 'Cr', 'Cu')\",OTHERS,False\nmp-1190799,\"{'Ca': 2.0, 'P': 4.0, 'O': 18.0}\",\"('Ca', 'O', 'P')\",OTHERS,False\nmp-1177411,\"{'Li': 4.0, 'Fe': 3.0, 'Ni': 2.0, 'Sb': 3.0, 'O': 16.0}\",\"('Fe', 'Li', 'Ni', 'O', 'Sb')\",OTHERS,False\nmp-1225961,\"{'Cs': 2.0, 'Sc': 2.0, 'Cu': 2.0, 'F': 12.0}\",\"('Cs', 'Cu', 'F', 'Sc')\",OTHERS,False\nmp-1183321,\"{'Ba': 1.0, 'Sr': 2.0, 'Ca': 1.0}\",\"('Ba', 'Ca', 'Sr')\",OTHERS,False\nmp-755996,\"{'Li': 5.0, 'Fe': 3.0, 'Cu': 2.0, 'O': 10.0}\",\"('Cu', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1207480,\"{'Y': 4.0, 'Mn': 2.0, 'C': 8.0}\",\"('C', 'Mn', 'Y')\",OTHERS,False\nmp-672215,\"{'Gd': 1.0, 'P': 2.0, 'Ru': 2.0}\",\"('Gd', 'P', 'Ru')\",OTHERS,False\nmp-755893,\"{'Ca': 4.0, 'Bi': 4.0, 'O': 12.0}\",\"('Bi', 'Ca', 'O')\",OTHERS,False\nmp-1238269,\"{'Tl': 8.0, 'C': 2.0, 'O': 10.0}\",\"('C', 'O', 'Tl')\",OTHERS,False\nmp-983565,\"{'Cu': 2.0, 'B': 2.0, 'Se': 4.0}\",\"('B', 'Cu', 'Se')\",OTHERS,False\nmp-353,\"{'O': 2.0, 'Ag': 4.0}\",\"('Ag', 'O')\",OTHERS,False\nmp-1196047,\"{'Cs': 4.0, 'V': 8.0, 'Sb': 4.0, 'O': 32.0}\",\"('Cs', 'O', 'Sb', 'V')\",OTHERS,False\nmp-556666,\"{'Ca': 4.0, 'Bi': 4.0, 'C': 4.0, 'O': 16.0, 'F': 4.0}\",\"('Bi', 'C', 'Ca', 'F', 'O')\",OTHERS,False\nmvc-6574,\"{'Y': 2.0, 'Fe': 6.0, 'F': 30.0}\",\"('F', 'Fe', 'Y')\",OTHERS,False\nmp-17033,\"{'F': 24.0, 'Al': 4.0, 'Pd': 4.0, 'Cs': 4.0}\",\"('Al', 'Cs', 'F', 'Pd')\",OTHERS,False\nmp-774402,\"{'V': 1.0, 'Cr': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'O', 'P', 'V')\",OTHERS,False\nmp-1078086,\"{'In': 2.0, 'Ni': 3.0, 'Se': 2.0}\",\"('In', 'Ni', 'Se')\",OTHERS,False\nmp-4057,\"{'B': 4.0, 'F': 16.0, 'Cs': 4.0}\",\"('B', 'Cs', 'F')\",OTHERS,False\nmp-1228779,\"{'Ba': 8.0, 'Ca': 5.0, 'Mn': 3.0, 'Fe': 8.0, 'F': 56.0}\",\"('Ba', 'Ca', 'F', 'Fe', 'Mn')\",OTHERS,False\nmp-984356,\"{'Cs': 1.0, 'Ir': 1.0, 'O': 3.0}\",\"('Cs', 'Ir', 'O')\",OTHERS,False\nmp-1005693,\"{'Sm': 2.0, 'In': 1.0, 'Hg': 1.0}\",\"('Hg', 'In', 'Sm')\",OTHERS,False\nmp-1186252,\"{'Nd': 4.0, 'Mg': 2.0}\",\"('Mg', 'Nd')\",OTHERS,False\nmp-754349,\"{'Gd': 2.0, 'O': 2.0, 'F': 2.0}\",\"('F', 'Gd', 'O')\",OTHERS,False\nmp-1223232,\"{'La': 4.0, 'Ce': 1.0, 'Zr': 3.0, 'O': 14.0}\",\"('Ce', 'La', 'O', 'Zr')\",OTHERS,False\nmp-1224476,\"{'Ho': 6.0, 'Ni': 4.0, 'Ru': 8.0}\",\"('Ho', 'Ni', 'Ru')\",OTHERS,False\nmp-1079997,\"{'V': 1.0, 'Pt': 8.0}\",\"('Pt', 'V')\",OTHERS,False\nmp-1207693,\"{'Yb': 12.0, 'Al': 12.0, 'Cr': 8.0, 'O': 48.0}\",\"('Al', 'Cr', 'O', 'Yb')\",OTHERS,False\nmp-25969,\"{'Li': 2.0, 'O': 24.0, 'P': 6.0, 'Mn': 8.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1223665,\"{'Ir': 1.0, 'Pt': 1.0}\",\"('Ir', 'Pt')\",OTHERS,False\nmp-1075406,\"{'Mg': 10.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-553880,\"{'Zn': 26.0, 'S': 26.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-8578,\"{'C': 1.0, 'Sc': 3.0, 'In': 1.0}\",\"('C', 'In', 'Sc')\",OTHERS,False\nmp-1079654,\"{'Sm': 2.0, 'Mn': 1.0, 'Ga': 6.0}\",\"('Ga', 'Mn', 'Sm')\",OTHERS,False\nmp-849527,\"{'Rb': 12.0, 'In': 4.0, 'O': 12.0}\",\"('In', 'O', 'Rb')\",OTHERS,False\nmp-1246754,\"{'Li': 24.0, 'Ir': 8.0, 'N': 16.0}\",\"('Ir', 'Li', 'N')\",OTHERS,False\nmp-1986,\"{'Zn': 1.0, 'O': 1.0}\",\"('O', 'Zn')\",OTHERS,False\nmp-15886,\"{'Na': 4.0, 'S': 6.0, 'U': 2.0}\",\"('Na', 'S', 'U')\",OTHERS,False\nmp-571479,\"{'Yb': 8.0, 'Ba': 8.0, 'Sn': 24.0}\",\"('Ba', 'Sn', 'Yb')\",OTHERS,False\nmp-1218879,\"{'Sr': 4.0, 'Al': 4.0, 'Si': 2.0, 'O': 14.0}\",\"('Al', 'O', 'Si', 'Sr')\",OTHERS,False\nmp-677780,\"{'Ca': 4.0, 'Mg': 2.0, 'Si': 4.0, 'O': 14.0}\",\"('Ca', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1228432,\"{'Ba': 8.0, 'Ta': 2.0, 'Ru': 3.0, 'Br': 2.0, 'O': 18.0}\",\"('Ba', 'Br', 'O', 'Ru', 'Ta')\",OTHERS,False\nmp-1102399,\"{'Fe': 2.0, 'P': 2.0, 'O': 7.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-775340,\"{'Li': 4.0, 'Cr': 2.0, 'Si': 12.0, 'O': 30.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,False\nmp-556884,\"{'Ca': 12.0, 'Si': 24.0, 'N': 24.0, 'O': 24.0}\",\"('Ca', 'N', 'O', 'Si')\",OTHERS,False\nmp-6250,\"{'O': 20.0, 'Zn': 4.0, 'Ba': 4.0, 'Tm': 8.0}\",\"('Ba', 'O', 'Tm', 'Zn')\",OTHERS,False\nmp-1194202,\"{'Ba': 2.0, 'Ho': 2.0, 'Fe': 8.0, 'O': 14.0}\",\"('Ba', 'Fe', 'Ho', 'O')\",OTHERS,False\nmp-1101361,\"{'V': 4.0, 'Co': 1.0, 'Cu': 1.0, 'O': 12.0}\",\"('Co', 'Cu', 'O', 'V')\",OTHERS,False\nmp-631308,\"{'Sn': 1.0, 'Ir': 1.0, 'Se': 2.0}\",\"('Ir', 'Se', 'Sn')\",OTHERS,False\nmp-866207,\"{'Lu': 1.0, 'Cd': 1.0, 'Pd': 2.0}\",\"('Cd', 'Lu', 'Pd')\",OTHERS,False\nmvc-4607,\"{'Mo': 4.0, 'O': 10.0}\",\"('Mo', 'O')\",OTHERS,False\nmp-773785,\"{'K': 8.0, 'Te': 4.0, 'O': 16.0}\",\"('K', 'O', 'Te')\",OTHERS,False\nmp-1105840,\"{'Nb': 6.0, 'V': 2.0, 'Se': 12.0}\",\"('Nb', 'Se', 'V')\",OTHERS,False\nmp-694564,\"{'Li': 2.0, 'Fe': 1.0, 'P': 8.0, 'O': 24.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-772609,\"{'La': 8.0, 'Zn': 8.0, 'O': 20.0}\",\"('La', 'O', 'Zn')\",OTHERS,False\nmp-29644,\"{'Ge': 1.0, 'Bi': 4.0, 'Te': 7.0}\",\"('Bi', 'Ge', 'Te')\",OTHERS,False\nmp-1100537,\"{'Li': 9.0, 'Mn': 7.0, 'O': 16.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-649632,\"{'K': 4.0, 'Co': 4.0, 'C': 16.0, 'O': 16.0}\",\"('C', 'Co', 'K', 'O')\",OTHERS,False\nmp-983509,\"{'Na': 6.0, 'Cd': 2.0}\",\"('Cd', 'Na')\",OTHERS,False\nmp-850185,\"{'Li': 6.0, 'Bi': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Bi', 'Li', 'O', 'P')\",OTHERS,False\nmp-755593,\"{'Li': 8.0, 'Co': 2.0, 'O': 6.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-755992,\"{'Fe': 6.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-767409,\"{'Li': 5.0, 'Sb': 1.0, 'S': 1.0}\",\"('Li', 'S', 'Sb')\",OTHERS,False\nmp-1176896,\"{'Li': 12.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1020631,\"{'Zn': 2.0, 'Ge': 2.0, 'O': 6.0}\",\"('Ge', 'O', 'Zn')\",OTHERS,False\nmp-1184567,\"{'Hf': 2.0, 'Tc': 1.0, 'Ir': 1.0}\",\"('Hf', 'Ir', 'Tc')\",OTHERS,False\nmp-1184119,\"{'Cu': 1.0, 'Pd': 3.0}\",\"('Cu', 'Pd')\",OTHERS,False\nmp-675212,\"{'Li': 3.0, 'W': 8.0, 'O': 24.0}\",\"('Li', 'O', 'W')\",OTHERS,False\nmp-1178257,\"{'Fe': 7.0, 'P': 8.0, 'O': 32.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-862870,\"{'Li': 1.0, 'Tc': 1.0, 'O': 3.0}\",\"('Li', 'O', 'Tc')\",OTHERS,False\nmp-554411,\"{'Cs': 4.0, 'Mn': 4.0, 'F': 16.0}\",\"('Cs', 'F', 'Mn')\",OTHERS,False\nmp-4962,\"{'S': 2.0, 'Co': 2.0, 'Sb': 2.0}\",\"('Co', 'S', 'Sb')\",OTHERS,False\nmp-18761,\"{'O': 8.0, 'K': 3.0, 'V': 3.0}\",\"('K', 'O', 'V')\",OTHERS,False\nmp-1177877,\"{'Li': 2.0, 'Mn': 1.0, 'V': 1.0, 'P': 2.0, 'O': 8.0, 'F': 2.0}\",\"('F', 'Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1173697,\"{'Na': 2.0, 'La': 4.0, 'Ti': 4.0, 'Mn': 2.0, 'O': 18.0}\",\"('La', 'Mn', 'Na', 'O', 'Ti')\",OTHERS,False\nmp-989511,\"{'Cs': 2.0, 'As': 1.0, 'Br': 1.0, 'Cl': 6.0}\",\"('As', 'Br', 'Cl', 'Cs')\",OTHERS,False\nmp-1222477,\"{'Li': 6.0, 'V': 6.0, 'Zn': 6.0, 'O': 24.0}\",\"('Li', 'O', 'V', 'Zn')\",OTHERS,False\nmp-720295,\"{'U': 4.0, 'H': 40.0, 'N': 8.0, 'O': 28.0}\",\"('H', 'N', 'O', 'U')\",OTHERS,False\nmp-1193284,\"{'Nd': 4.0, 'Mo': 4.0, 'Br': 4.0, 'O': 16.0}\",\"('Br', 'Mo', 'Nd', 'O')\",OTHERS,False\nmp-1246767,\"{'Ga': 20.0, 'Ge': 12.0, 'N': 36.0}\",\"('Ga', 'Ge', 'N')\",OTHERS,False\nmp-972095,\"{'Zn': 6.0, 'Hg': 2.0}\",\"('Hg', 'Zn')\",OTHERS,False\nmp-753268,\"{'Li': 6.0, 'Cu': 1.0, 'F': 8.0}\",\"('Cu', 'F', 'Li')\",OTHERS,False\nmp-1211810,\"{'K': 2.0, 'Li': 2.0, 'Tm': 4.0, 'Mo': 8.0, 'O': 32.0}\",\"('K', 'Li', 'Mo', 'O', 'Tm')\",OTHERS,False\nmp-1217538,\"{'Te': 2.0, 'W': 2.0, 'N': 2.0, 'O': 15.0}\",\"('N', 'O', 'Te', 'W')\",OTHERS,False\nmp-1018140,\"{'Mg': 1.0, 'Ni': 1.0}\",\"('Mg', 'Ni')\",OTHERS,False\nmp-1218068,\"{'Sr': 2.0, 'Pr': 2.0, 'Zn': 2.0, 'Ru': 2.0, 'O': 12.0}\",\"('O', 'Pr', 'Ru', 'Sr', 'Zn')\",OTHERS,False\nmp-1192619,{'C': 29.0},\"('C',)\",OTHERS,False\nmp-1229303,\"{'Ba': 10.0, 'Gd': 1.0, 'Y': 4.0, 'Cu': 15.0, 'O': 35.0}\",\"('Ba', 'Cu', 'Gd', 'O', 'Y')\",OTHERS,False\nmp-1194450,\"{'Ti': 6.0, 'Al': 16.0, 'Rh': 7.0}\",\"('Al', 'Rh', 'Ti')\",OTHERS,False\nmp-1211025,\"{'Na': 6.0, 'Fe': 6.0, 'B': 6.0, 'P': 12.0, 'O': 66.0}\",\"('B', 'Fe', 'Na', 'O', 'P')\",OTHERS,False\nmp-755878,\"{'Cu': 6.0, 'O': 1.0, 'F': 11.0}\",\"('Cu', 'F', 'O')\",OTHERS,False\nmp-19954,\"{'Al': 16.0, 'Cr': 10.0}\",\"('Al', 'Cr')\",OTHERS,False\nmp-20991,\"{'O': 6.0, 'Ba': 2.0, 'Pb': 2.0}\",\"('Ba', 'O', 'Pb')\",OTHERS,False\nmp-1223258,\"{'La': 2.0, 'Si': 3.0, 'Ni': 1.0}\",\"('La', 'Ni', 'Si')\",OTHERS,False\nmp-756391,\"{'Mn': 3.0, 'Ni': 1.0, 'P': 4.0, 'O': 16.0}\",\"('Mn', 'Ni', 'O', 'P')\",OTHERS,False\nmp-982013,\"{'Sr': 6.0, 'Tm': 2.0}\",\"('Sr', 'Tm')\",OTHERS,False\nmp-780658,\"{'Li': 2.0, 'Mn': 6.0, 'P': 12.0, 'O': 40.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-755619,\"{'Sn': 4.0, 'P': 4.0, 'O': 14.0}\",\"('O', 'P', 'Sn')\",OTHERS,False\nmp-1195322,\"{'Rb': 2.0, 'Pd': 1.0, 'S': 8.0, 'O': 26.0}\",\"('O', 'Pd', 'Rb', 'S')\",OTHERS,False\nmp-20424,\"{'C': 1.0, 'Mg': 1.0, 'Co': 3.0}\",\"('C', 'Co', 'Mg')\",OTHERS,False\nmp-861937,\"{'Ba': 2.0, 'As': 1.0, 'Au': 1.0}\",\"('As', 'Au', 'Ba')\",OTHERS,False\nmp-3211,\"{'O': 2.0, 'S': 1.0, 'Nd': 2.0}\",\"('Nd', 'O', 'S')\",OTHERS,False\nmp-1194001,\"{'Pr': 8.0, 'P': 2.0, 'Cl': 2.0, 'O': 16.0}\",\"('Cl', 'O', 'P', 'Pr')\",OTHERS,False\nmp-698063,\"{'Na': 8.0, 'P': 8.0, 'H': 8.0, 'O': 28.0}\",\"('H', 'Na', 'O', 'P')\",OTHERS,False\nmp-1147614,\"{'Li': 24.0, 'Zn': 12.0, 'P': 16.0, 'S': 64.0}\",\"('Li', 'P', 'S', 'Zn')\",OTHERS,False\nmp-1187062,\"{'Th': 6.0, 'Se': 2.0}\",\"('Se', 'Th')\",OTHERS,False\nmp-1208652,\"{'Sr': 2.0, 'Ge': 2.0, 'O': 8.0}\",\"('Ge', 'O', 'Sr')\",OTHERS,False\nmp-1112033,\"{'K': 2.0, 'Hg': 1.0, 'Bi': 1.0, 'Cl': 6.0}\",\"('Bi', 'Cl', 'Hg', 'K')\",OTHERS,False\nmp-1114287,\"{'K': 2.0, 'Ta': 1.0, 'Ag': 1.0, 'F': 6.0}\",\"('Ag', 'F', 'K', 'Ta')\",OTHERS,False\nmp-1246307,\"{'Mg': 22.0, 'C': 4.0, 'N': 20.0}\",\"('C', 'Mg', 'N')\",OTHERS,False\nmvc-13239,\"{'Ti': 2.0, 'F': 8.0}\",\"('F', 'Ti')\",OTHERS,False\nmp-29403,\"{'Cu': 1.0, 'Ga': 1.0, 'I': 4.0}\",\"('Cu', 'Ga', 'I')\",OTHERS,False\nmp-758047,\"{'Mn': 7.0, 'Co': 1.0, 'P': 12.0, 'O': 48.0}\",\"('Co', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1213387,\"{'Dy': 30.0, 'C': 40.0}\",\"('C', 'Dy')\",OTHERS,False\nmp-1184761,\"{'Ir': 3.0, 'Os': 1.0}\",\"('Ir', 'Os')\",OTHERS,False\nmp-757647,\"{'Li': 8.0, 'Mn': 8.0, 'Si': 24.0, 'O': 60.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1025495,\"{'Nd': 2.0, 'Si': 4.0, 'Rh': 2.0}\",\"('Nd', 'Rh', 'Si')\",OTHERS,False\nmp-1096039,\"{'Mn': 1.0, 'Ag': 1.0, 'Pd': 2.0}\",\"('Ag', 'Mn', 'Pd')\",OTHERS,False\nmp-1176979,\"{'Li': 6.0, 'Fe': 1.0, 'S': 4.0}\",\"('Fe', 'Li', 'S')\",OTHERS,False\nmp-567329,\"{'Cr': 4.0, 'Hg': 24.0, 'As': 16.0, 'Br': 28.0}\",\"('As', 'Br', 'Cr', 'Hg')\",OTHERS,False\nmp-1218483,\"{'Sr': 4.0, 'Zn': 1.0, 'Cu': 1.0, 'W': 2.0, 'O': 12.0}\",\"('Cu', 'O', 'Sr', 'W', 'Zn')\",OTHERS,False\nmp-1179593,\"{'Sr': 12.0, 'S': 24.0, 'O': 120.0}\",\"('O', 'S', 'Sr')\",OTHERS,False\nmp-1176833,\"{'Li': 8.0, 'Mn': 1.0, 'Fe': 7.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1219260,\"{'Sm': 2.0, 'Fe': 17.0, 'C': 1.0, 'N': 1.0}\",\"('C', 'Fe', 'N', 'Sm')\",OTHERS,False\nmvc-2597,\"{'Ba': 2.0, 'Tl': 1.0, 'Bi': 2.0, 'O': 7.0}\",\"('Ba', 'Bi', 'O', 'Tl')\",OTHERS,False\nmp-1100539,\"{'Li': 9.0, 'Mn': 7.0, 'O': 16.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-754605,\"{'Li': 2.0, 'Lu': 2.0, 'O': 4.0}\",\"('Li', 'Lu', 'O')\",OTHERS,False\nmp-779011,\"{'Li': 6.0, 'Mn': 1.0, 'Fe': 5.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1178835,\"{'V': 4.0, 'Re': 4.0, 'O': 22.0}\",\"('O', 'Re', 'V')\",OTHERS,False\nmp-779877,\"{'Li': 6.0, 'Mn': 1.0, 'Fe': 5.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1084832,\"{'Fe': 5.0, 'Co': 3.0}\",\"('Co', 'Fe')\",OTHERS,False\nmp-554174,\"{'Ca': 8.0, 'P': 8.0, 'H': 32.0, 'O': 44.0}\",\"('Ca', 'H', 'O', 'P')\",OTHERS,False\nmp-775320,\"{'Li': 4.0, 'V': 3.0, 'O': 8.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-655591,\"{'Li': 2.0, 'B': 26.0, 'C': 4.0}\",\"('B', 'C', 'Li')\",OTHERS,False\nmp-976055,\"{'Li': 3.0, 'In': 1.0}\",\"('In', 'Li')\",OTHERS,False\nmp-768905,\"{'Li': 24.0, 'Mn': 5.0, 'Cr': 7.0, 'O': 36.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1175170,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-23737,\"{'H': 3.0, 'Mg': 1.0, 'K': 1.0}\",\"('H', 'K', 'Mg')\",OTHERS,False\nmp-26750,\"{'Fe': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-1188053,\"{'Zr': 6.0, 'Ta': 2.0}\",\"('Ta', 'Zr')\",OTHERS,False\nmp-753638,\"{'Li': 3.0, 'Nb': 2.0, 'Fe': 3.0, 'O': 10.0}\",\"('Fe', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-770852,\"{'Li': 4.0, 'Ti': 2.0, 'Ni': 4.0, 'O': 10.0}\",\"('Li', 'Ni', 'O', 'Ti')\",OTHERS,False\nmp-567705,\"{'Ti': 4.0, 'Al': 8.0}\",\"('Al', 'Ti')\",OTHERS,False\nmp-15793,\"{'Li': 1.0, 'Se': 2.0, 'Tb': 1.0}\",\"('Li', 'Se', 'Tb')\",OTHERS,False\nmvc-7052,\"{'Mo': 2.0, 'S': 4.0}\",\"('Mo', 'S')\",OTHERS,False\nmp-1206907,\"{'Tl': 1.0, 'N': 1.0}\",\"('N', 'Tl')\",OTHERS,False\nmp-1093731,\"{'Ti': 2.0, 'Sn': 1.0, 'Mo': 1.0}\",\"('Mo', 'Sn', 'Ti')\",OTHERS,False\nmp-759907,\"{'Li': 2.0, 'Fe': 3.0, 'Cu': 1.0, 'O': 8.0}\",\"('Cu', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1039319,\"{'Mg': 8.0, 'Cd': 4.0}\",\"('Cd', 'Mg')\",OTHERS,False\nmp-673633,\"{'In': 4.0, 'S': 6.0}\",\"('In', 'S')\",OTHERS,False\nmp-763247,\"{'Li': 2.0, 'V': 2.0, 'Si': 2.0, 'O': 10.0}\",\"('Li', 'O', 'Si', 'V')\",OTHERS,False\nmp-1247354,\"{'Re': 2.0, 'C': 12.0, 'N': 18.0}\",\"('C', 'N', 'Re')\",OTHERS,False\nmp-1224733,\"{'Gd': 2.0, 'Zn': 1.0, 'Ag': 1.0}\",\"('Ag', 'Gd', 'Zn')\",OTHERS,False\nmp-1177532,\"{'Li': 6.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1226389,\"{'Cr': 1.0, 'O': 3.0, 'F': 3.0}\",\"('Cr', 'F', 'O')\",OTHERS,False\nmp-1184550,\"{'Ge': 2.0, 'C': 2.0}\",\"('C', 'Ge')\",OTHERS,False\nmp-756763,\"{'Li': 3.0, 'Cr': 1.0, 'Co': 4.0, 'O': 8.0}\",\"('Co', 'Cr', 'Li', 'O')\",OTHERS,False\nmp-1220146,\"{'Ni': 16.0, 'Bi': 16.0, 'S': 2.0, 'I': 4.0}\",\"('Bi', 'I', 'Ni', 'S')\",OTHERS,False\nmp-767597,\"{'Li': 4.0, 'Mn': 4.0, 'F': 20.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-1199056,\"{'Rb': 16.0, 'Ge': 16.0}\",\"('Ge', 'Rb')\",OTHERS,False\nmp-865681,\"{'Ti': 1.0, 'Si': 1.0, 'Ru': 2.0}\",\"('Ru', 'Si', 'Ti')\",OTHERS,False\nmp-1093540,\"{'Li': 2.0, 'Ga': 1.0, 'Bi': 1.0}\",\"('Bi', 'Ga', 'Li')\",OTHERS,False\nmp-1183738,\"{'Ce': 1.0, 'Sb': 3.0}\",\"('Ce', 'Sb')\",OTHERS,False\nmp-1226019,\"{'Co': 5.0, 'Ni': 1.0, 'S': 8.0}\",\"('Co', 'Ni', 'S')\",OTHERS,False\nmp-653887,\"{'Co': 16.0, 'Pb': 4.0, 'C': 64.0, 'O': 64.0}\",\"('C', 'Co', 'O', 'Pb')\",OTHERS,False\nmp-759662,\"{'V': 6.0, 'O': 9.0, 'F': 3.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-1183523,\"{'Ca': 6.0, 'Dy': 2.0}\",\"('Ca', 'Dy')\",OTHERS,False\nmp-1208294,\"{'U': 4.0, 'Cl': 8.0}\",\"('Cl', 'U')\",OTHERS,False\nmp-1025231,\"{'Pr': 2.0, 'Cr': 1.0, 'S': 4.0}\",\"('Cr', 'Pr', 'S')\",OTHERS,False\nmp-1205187,\"{'Sr': 2.0, 'H': 16.0, 'Cl': 4.0, 'O': 24.0}\",\"('Cl', 'H', 'O', 'Sr')\",OTHERS,False\nmp-778861,\"{'Li': 4.0, 'V': 8.0, 'O': 4.0, 'F': 20.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-626216,\"{'Sr': 1.0, 'H': 16.0, 'O': 10.0}\",\"('H', 'O', 'Sr')\",OTHERS,False\nmp-1196708,\"{'Ge': 14.0, 'N': 4.0, 'O': 30.0}\",\"('Ge', 'N', 'O')\",OTHERS,False\nmp-1036480,\"{'Rb': 1.0, 'Mg': 14.0, 'Al': 1.0, 'O': 16.0}\",\"('Al', 'Mg', 'O', 'Rb')\",OTHERS,False\nmp-775774,\"{'Ag': 2.0, 'Bi': 2.0, 'O': 6.0}\",\"('Ag', 'Bi', 'O')\",OTHERS,False\nmp-568998,\"{'Cu': 6.0, 'Se': 6.0}\",\"('Cu', 'Se')\",OTHERS,False\nmp-1102248,\"{'Tm': 4.0, 'Al': 4.0, 'Au': 4.0}\",\"('Al', 'Au', 'Tm')\",OTHERS,False\nmp-15559,\"{'S': 32.0, 'K': 4.0, 'Sb': 20.0}\",\"('K', 'S', 'Sb')\",OTHERS,False\nmp-780798,\"{'Li': 1.0, 'Mn': 2.0, 'Cr': 2.0, 'O': 8.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-696416,\"{'Na': 2.0, 'Si': 6.0, 'B': 2.0, 'O': 16.0}\",\"('B', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1033646,\"{'Rb': 1.0, 'Hf': 1.0, 'Mg': 6.0, 'O': 7.0}\",\"('Hf', 'Mg', 'O', 'Rb')\",OTHERS,False\nmp-1207390,\"{'Zn': 2.0, 'Pt': 6.0, 'O': 8.0}\",\"('O', 'Pt', 'Zn')\",OTHERS,False\nmp-756050,\"{'Ta': 4.0, 'Cu': 4.0, 'O': 12.0}\",\"('Cu', 'O', 'Ta')\",OTHERS,False\nmp-558579,\"{'Tl': 4.0, 'H': 4.0, 'C': 4.0, 'O': 8.0}\",\"('C', 'H', 'O', 'Tl')\",OTHERS,False\nmp-1029952,\"{'Te': 6.0, 'Mo': 2.0, 'W': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Te', 'W')\",OTHERS,False\nmp-1183784,\"{'Ce': 3.0, 'Cl': 1.0}\",\"('Ce', 'Cl')\",OTHERS,False\nmp-768257,\"{'Na': 8.0, 'Bi': 4.0, 'C': 8.0, 'S': 2.0, 'O': 32.0}\",\"('Bi', 'C', 'Na', 'O', 'S')\",OTHERS,False\nmp-763176,\"{'Mn': 6.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1036441,\"{'Cs': 1.0, 'Mg': 14.0, 'Mn': 1.0, 'O': 16.0}\",\"('Cs', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-604147,\"{'Na': 8.0, 'Li': 4.0, 'H': 24.0, 'N': 12.0}\",\"('H', 'Li', 'N', 'Na')\",OTHERS,False\nmp-559918,\"{'Ti': 8.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cu', 'S', 'Ti')\",OTHERS,False\nmp-1096643,\"{'Li': 1.0, 'Tl': 2.0, 'Pd': 1.0}\",\"('Li', 'Pd', 'Tl')\",OTHERS,False\nmp-1244813,\"{'Y': 4.0, 'V': 13.0, 'Si': 2.0, 'Sb': 2.0, 'O': 28.0}\",\"('O', 'Sb', 'Si', 'V', 'Y')\",OTHERS,False\nmp-560159,\"{'B': 12.0, 'H': 42.0, 'C': 10.0, 'N': 4.0, 'O': 2.0}\",\"('B', 'C', 'H', 'N', 'O')\",OTHERS,False\nmp-1196513,\"{'Sc': 12.0, 'Ge': 24.0, 'Ru': 12.0}\",\"('Ge', 'Ru', 'Sc')\",OTHERS,False\nmp-541041,\"{'Nd': 4.0, 'Ag': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Ag', 'Nd', 'O', 'P')\",OTHERS,False\nmp-1019586,\"{'Ca': 2.0, 'Al': 4.0, 'Si': 2.0, 'O': 12.0}\",\"('Al', 'Ca', 'O', 'Si')\",OTHERS,False\nmp-557299,\"{'Nd': 12.0, 'Mo': 4.0, 'O': 28.0}\",\"('Mo', 'Nd', 'O')\",OTHERS,False\nmp-1095875,\"{'Sc': 1.0, 'Zn': 1.0, 'Ir': 2.0}\",\"('Ir', 'Sc', 'Zn')\",OTHERS,False\nmp-504627,\"{'Er': 8.0, 'Ni': 2.0, 'B': 26.0}\",\"('B', 'Er', 'Ni')\",OTHERS,False\nmp-779250,\"{'Li': 16.0, 'Fe': 8.0, 'B': 8.0, 'O': 32.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-757415,\"{'Na': 8.0, 'Fe': 4.0, 'O': 8.0}\",\"('Fe', 'Na', 'O')\",OTHERS,False\nmp-849411,\"{'Li': 8.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-27943,\"{'W': 6.0, 'N': 3.0}\",\"('N', 'W')\",OTHERS,False\nmp-758806,\"{'B': 80.0, 'P': 16.0, 'H': 64.0, 'Cl': 16.0}\",\"('B', 'Cl', 'H', 'P')\",OTHERS,False\nmp-23037,\"{'Cs': 1.0, 'Pb': 1.0, 'Cl': 3.0}\",\"('Cl', 'Cs', 'Pb')\",OTHERS,False\nmp-775921,\"{'Li': 6.0, 'V': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1213696,\"{'Cs': 4.0, 'Co': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Co', 'Cs', 'O', 'P')\",OTHERS,False\nmp-861913,\"{'Li': 1.0, 'Dy': 2.0, 'Al': 1.0}\",\"('Al', 'Dy', 'Li')\",OTHERS,False\nmp-27897,\"{'N': 8.0, 'O': 16.0, 'Ba': 4.0}\",\"('Ba', 'N', 'O')\",OTHERS,False\nmp-1217682,\"{'Tb': 2.0, 'Hf': 1.0, 'Al': 9.0}\",\"('Al', 'Hf', 'Tb')\",OTHERS,False\nmp-1208703,\"{'Sr': 4.0, 'Cr': 3.0, 'O': 10.0}\",\"('Cr', 'O', 'Sr')\",OTHERS,False\nmp-7806,\"{'P': 4.0, 'Cr': 12.0}\",\"('Cr', 'P')\",OTHERS,False\nmp-1029155,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-759735,\"{'Li': 4.0, 'Bi': 2.0, 'P': 10.0, 'O': 30.0}\",\"('Bi', 'Li', 'O', 'P')\",OTHERS,False\nmp-568357,\"{'K': 8.0, 'La': 12.0, 'Os': 2.0, 'I': 28.0}\",\"('I', 'K', 'La', 'Os')\",OTHERS,False\nmp-764248,\"{'Li': 4.0, 'V': 2.0, 'Cr': 2.0, 'P': 8.0, 'O': 28.0}\",\"('Cr', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1105271,\"{'Mn': 4.0, 'Bi': 4.0, 'O': 12.0}\",\"('Bi', 'Mn', 'O')\",OTHERS,False\nmvc-2146,\"{'Zn': 4.0, 'Co': 2.0, 'N': 4.0}\",\"('Co', 'N', 'Zn')\",OTHERS,False\nmp-1101240,\"{'V': 3.0, 'Co': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Co', 'O', 'P', 'V')\",OTHERS,False\nmp-5473,\"{'Mg': 4.0, 'Si': 4.0, 'Ca': 4.0}\",\"('Ca', 'Mg', 'Si')\",OTHERS,False\nmp-977415,\"{'Ho': 1.0, 'Cd': 1.0, 'Au': 2.0}\",\"('Au', 'Cd', 'Ho')\",OTHERS,False\nmp-1209209,\"{'Sb': 4.0, 'N': 1.0, 'F': 13.0}\",\"('F', 'N', 'Sb')\",OTHERS,False\nmp-1218178,\"{'Sr': 2.0, 'La': 2.0, 'Ni': 2.0, 'O': 8.0}\",\"('La', 'Ni', 'O', 'Sr')\",OTHERS,False\nmp-559227,\"{'Rb': 4.0, 'Ge': 4.0, 'Bi': 4.0, 'S': 16.0}\",\"('Bi', 'Ge', 'Rb', 'S')\",OTHERS,False\nmp-1222934,\"{'La': 2.0, 'Ge': 2.0, 'Pd': 2.0}\",\"('Ge', 'La', 'Pd')\",OTHERS,False\nmp-1093902,\"{'Ba': 1.0, 'Mg': 1.0, 'Tl': 2.0}\",\"('Ba', 'Mg', 'Tl')\",OTHERS,False\nmp-15988,\"{'Li': 2.0, 'Cu': 1.0, 'Sb': 1.0}\",\"('Cu', 'Li', 'Sb')\",OTHERS,False\nmp-1247705,\"{'Sr': 4.0, 'Ca': 28.0, 'Mn': 24.0, 'Al': 8.0, 'O': 92.0}\",\"('Al', 'Ca', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1111896,\"{'Na': 3.0, 'Er': 1.0, 'Cl': 6.0}\",\"('Cl', 'Er', 'Na')\",OTHERS,False\nmp-1246758,\"{'Fe': 2.0, 'Cu': 1.0, 'N': 2.0}\",\"('Cu', 'Fe', 'N')\",OTHERS,False\nmp-27351,\"{'N': 12.0, 'Cl': 16.0, 'Sb': 4.0}\",\"('Cl', 'N', 'Sb')\",OTHERS,False\nmp-684013,\"{'Ba': 4.0, 'In': 26.0, 'Ir': 8.0}\",\"('Ba', 'In', 'Ir')\",OTHERS,False\nmp-780525,\"{'Mn': 12.0, 'O': 2.0, 'F': 22.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmvc-5035,\"{'Zn': 4.0, 'Te': 2.0, 'W': 2.0, 'O': 12.0}\",\"('O', 'Te', 'W', 'Zn')\",OTHERS,False\nmp-752975,\"{'Fe': 4.0, 'O': 4.0, 'F': 4.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1093607,\"{'Hf': 2.0, 'Mn': 1.0, 'Co': 1.0}\",\"('Co', 'Hf', 'Mn')\",OTHERS,False\nmp-1186211,\"{'Na': 2.0, 'Zn': 6.0}\",\"('Na', 'Zn')\",OTHERS,False\nmp-1113281,\"{'Cs': 2.0, 'Al': 1.0, 'In': 1.0, 'Br': 6.0}\",\"('Al', 'Br', 'Cs', 'In')\",OTHERS,False\nmp-9952,\"{'Zn': 2.0, 'Sb': 6.0, 'Hf': 10.0}\",\"('Hf', 'Sb', 'Zn')\",OTHERS,False\nmp-669497,\"{'Dy': 20.0, 'Cl': 44.0}\",\"('Cl', 'Dy')\",OTHERS,False\nmp-10436,\"{'Al': 2.0, 'Si': 2.0, 'Tb': 1.0}\",\"('Al', 'Si', 'Tb')\",OTHERS,False\nmp-1113018,\"{'Cs': 2.0, 'Li': 1.0, 'Dy': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Dy', 'Li')\",OTHERS,False\nmp-1195438,\"{'Al': 8.0, 'B': 56.0, 'Pd': 120.0}\",\"('Al', 'B', 'Pd')\",OTHERS,False\nmp-1227605,\"{'Bi': 12.0, 'I': 6.0, 'Br': 6.0}\",\"('Bi', 'Br', 'I')\",OTHERS,False\nmp-1225536,\"{'Dy': 1.0, 'Tm': 1.0, 'Mn': 4.0}\",\"('Dy', 'Mn', 'Tm')\",OTHERS,False\nmp-19752,\"{'O': 12.0, 'P': 3.0, 'Fe': 3.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmvc-11245,\"{'Zn': 2.0, 'Fe': 4.0, 'S': 8.0}\",\"('Fe', 'S', 'Zn')\",OTHERS,False\nmp-3415,\"{'Si': 2.0, 'Ru': 2.0, 'Yb': 1.0}\",\"('Ru', 'Si', 'Yb')\",OTHERS,False\nmp-1101531,\"{'Li': 18.0, 'Co': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,False\nmp-570019,\"{'Cd': 8.0, 'I': 16.0}\",\"('Cd', 'I')\",OTHERS,False\nmp-1096127,\"{'Y': 2.0, 'Cu': 1.0, 'Ag': 1.0}\",\"('Ag', 'Cu', 'Y')\",OTHERS,False\nmp-721699,\"{'Ca': 2.0, 'H': 32.0, 'C': 8.0, 'N': 20.0, 'O': 20.0}\",\"('C', 'Ca', 'H', 'N', 'O')\",OTHERS,False\nmp-1226086,\"{'Cr': 10.0, 'Te': 12.0}\",\"('Cr', 'Te')\",OTHERS,False\nmp-624243,\"{'Fe': 12.0, 'W': 12.0, 'C': 2.0}\",\"('C', 'Fe', 'W')\",OTHERS,False\nmp-635413,\"{'Cs': 3.0, 'Bi': 1.0}\",\"('Bi', 'Cs')\",OTHERS,False\nmp-1228266,\"{'Al': 6.0, 'C': 1.0, 'O': 7.0}\",\"('Al', 'C', 'O')\",OTHERS,False\nmp-18837,\"{'O': 8.0, 'K': 1.0, 'Sc': 1.0, 'Mo': 2.0}\",\"('K', 'Mo', 'O', 'Sc')\",OTHERS,False\nmp-1181356,\"{'Ga': 3.0, 'S': 2.0, 'O': 15.0}\",\"('Ga', 'O', 'S')\",OTHERS,False\nmp-20092,\"{'O': 6.0, 'Eu': 1.0, 'Ta': 2.0}\",\"('Eu', 'O', 'Ta')\",OTHERS,False\nmp-29351,\"{'Ba': 4.0, 'Mo': 24.0, 'O': 40.0}\",\"('Ba', 'Mo', 'O')\",OTHERS,False\nmp-24577,\"{'H': 12.0, 'O': 6.0, 'F': 6.0, 'Ni': 1.0, 'Sn': 1.0}\",\"('F', 'H', 'Ni', 'O', 'Sn')\",OTHERS,False\nmp-1195802,\"{'Sm': 8.0, 'Ge': 6.0, 'S': 24.0}\",\"('Ge', 'S', 'Sm')\",OTHERS,False\nmp-1104856,\"{'La': 6.0, 'Pt': 8.0}\",\"('La', 'Pt')\",OTHERS,False\nmp-756641,\"{'Li': 4.0, 'B': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('B', 'C', 'Li', 'O', 'P')\",OTHERS,False\nmp-1195554,\"{'Th': 4.0, 'Te': 8.0, 'Mo': 4.0, 'O': 36.0}\",\"('Mo', 'O', 'Te', 'Th')\",OTHERS,False\nmp-706986,\"{'P': 8.0, 'H': 32.0, 'N': 8.0, 'O': 24.0}\",\"('H', 'N', 'O', 'P')\",OTHERS,False\nmp-983410,\"{'Ho': 2.0, 'Cu': 1.0, 'Pd': 1.0}\",\"('Cu', 'Ho', 'Pd')\",OTHERS,False\nmp-2840,\"{'Ir': 4.0, 'Pu': 2.0}\",\"('Ir', 'Pu')\",OTHERS,False\nmvc-3757,\"{'Zn': 4.0, 'Mo': 4.0, 'F': 20.0}\",\"('F', 'Mo', 'Zn')\",OTHERS,False\nmp-558428,\"{'Ba': 9.0, 'Sc': 2.0, 'Si': 6.0, 'O': 24.0}\",\"('Ba', 'O', 'Sc', 'Si')\",OTHERS,False\nmp-771568,\"{'Sr': 4.0, 'Ca': 8.0, 'I': 24.0}\",\"('Ca', 'I', 'Sr')\",OTHERS,False\nmp-775995,\"{'Mn': 3.0, 'Cr': 1.0, 'Sn': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Mn', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1247545,\"{'Nb': 4.0, 'Mo': 4.0, 'N': 12.0}\",\"('Mo', 'N', 'Nb')\",OTHERS,False\nmp-774235,\"{'Li': 1.0, 'Cr': 3.0, 'O': 4.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-1102313,\"{'Yb': 4.0, 'Sb': 4.0, 'Ir': 4.0}\",\"('Ir', 'Sb', 'Yb')\",OTHERS,False\nmp-1076680,\"{'Sr': 16.0, 'Ca': 16.0, 'Ti': 8.0, 'Mn': 24.0, 'O': 80.0}\",\"('Ca', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-669550,\"{'Ce': 3.0, 'Mn': 1.0, 'Al': 24.0, 'Cu': 8.0}\",\"('Al', 'Ce', 'Cu', 'Mn')\",OTHERS,False\nmp-16721,\"{'Al': 8.0, 'Tm': 8.0}\",\"('Al', 'Tm')\",OTHERS,False\nmp-555726,\"{'Na': 4.0, 'Cl': 4.0, 'O': 12.0}\",\"('Cl', 'Na', 'O')\",OTHERS,False\nmp-1187918,\"{'Zn': 3.0, 'P': 1.0}\",\"('P', 'Zn')\",OTHERS,False\nmp-1221653,\"{'Mn': 1.0, 'Nb': 4.0, 'C': 2.0, 'S': 4.0}\",\"('C', 'Mn', 'Nb', 'S')\",OTHERS,False\nmp-1224283,\"{'Hf': 1.0, 'Ta': 1.0, 'B': 4.0}\",\"('B', 'Hf', 'Ta')\",OTHERS,False\nmp-752670,\"{'Li': 6.0, 'Fe': 2.0, 'S': 6.0}\",\"('Fe', 'Li', 'S')\",OTHERS,False\nmp-989546,\"{'Sr': 2.0, 'Tc': 2.0, 'N': 6.0}\",\"('N', 'Sr', 'Tc')\",OTHERS,False\nmp-1224413,\"{'H': 3.0, 'Pd': 4.0}\",\"('H', 'Pd')\",OTHERS,False\nmp-756396,\"{'Fe': 8.0, 'O': 12.0, 'F': 4.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1221052,\"{'Na': 14.0, 'Fe': 14.0, 'P': 12.0, 'O': 48.0, 'F': 6.0}\",\"('F', 'Fe', 'Na', 'O', 'P')\",OTHERS,False\nmp-759775,\"{'Li': 16.0, 'Mn': 18.0, 'O': 36.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1099889,\"{'Sr': 28.0, 'Ca': 4.0, 'Ti': 28.0, 'Mn': 4.0, 'O': 80.0}\",\"('Ca', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-22402,\"{'O': 14.0, 'Co': 8.0, 'In': 2.0, 'Ba': 2.0}\",\"('Ba', 'Co', 'In', 'O')\",OTHERS,False\nmp-21431,\"{'Ho': 1.0, 'In': 3.0}\",\"('Ho', 'In')\",OTHERS,False\nmp-31015,\"{'S': 1.0, 'Br': 7.0, 'Ta': 3.0}\",\"('Br', 'S', 'Ta')\",OTHERS,False\nmp-1202437,\"{'Cs': 4.0, 'H': 8.0, 'S': 4.0, 'N': 4.0, 'O': 12.0}\",\"('Cs', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-1222178,\"{'Mn': 2.0, 'Fe': 8.0, 'Bi': 10.0, 'O': 30.0}\",\"('Bi', 'Fe', 'Mn', 'O')\",OTHERS,False\nmp-1206808,\"{'Cs': 2.0, 'Li': 1.0, 'Al': 1.0, 'F': 6.0}\",\"('Al', 'Cs', 'F', 'Li')\",OTHERS,False\nmp-510657,\"{'O': 4.0, 'V': 1.0, 'Cu': 3.0}\",\"('Cu', 'O', 'V')\",OTHERS,False\nmp-1208612,\"{'Sr': 1.0, 'Li': 1.0, 'Si': 1.0}\",\"('Li', 'Si', 'Sr')\",OTHERS,False\nmp-1212738,\"{'Gd': 12.0, 'Si': 4.0, 'Br': 12.0}\",\"('Br', 'Gd', 'Si')\",OTHERS,False\nmp-646548,\"{'Eu': 4.0, 'K': 4.0, 'As': 4.0, 'S': 12.0}\",\"('As', 'Eu', 'K', 'S')\",OTHERS,False\nmp-999439,\"{'Nb': 3.0, 'Cr': 1.0}\",\"('Cr', 'Nb')\",OTHERS,False\nmp-753930,\"{'Li': 4.0, 'V': 2.0, 'Fe': 2.0, 'O': 10.0}\",\"('Fe', 'Li', 'O', 'V')\",OTHERS,False\nmp-1105411,\"{'Li': 2.0, 'Cr': 2.0, 'Ge': 4.0, 'O': 12.0}\",\"('Cr', 'Ge', 'Li', 'O')\",OTHERS,False\nmp-30818,\"{'Li': 2.0, 'Al': 1.0, 'Pt': 1.0}\",\"('Al', 'Li', 'Pt')\",OTHERS,False\nmp-777308,\"{'Mn': 8.0, 'O': 14.0, 'F': 2.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-771140,\"{'Li': 5.0, 'Mn': 5.0, 'Sn': 2.0, 'O': 12.0}\",\"('Li', 'Mn', 'O', 'Sn')\",OTHERS,False\nmp-571438,\"{'Be': 12.0, 'V': 1.0}\",\"('Be', 'V')\",OTHERS,False\nmp-978967,\"{'Sr': 1.0, 'Dy': 3.0}\",\"('Dy', 'Sr')\",OTHERS,False\nmp-1246060,\"{'Zr': 6.0, 'Ag': 3.0, 'N': 9.0}\",\"('Ag', 'N', 'Zr')\",OTHERS,False\nmp-29655,\"{'H': 32.0, 'B': 16.0, 'C': 8.0}\",\"('B', 'C', 'H')\",OTHERS,False\nmp-5456,\"{'O': 3.0, 'Cu': 1.0, 'Sr': 2.0}\",\"('Cu', 'O', 'Sr')\",OTHERS,False\nmp-1074413,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-29107,\"{'Rb': 8.0, 'Te': 16.0, 'Hg': 12.0}\",\"('Hg', 'Rb', 'Te')\",OTHERS,False\nmp-542232,\"{'Ca': 4.0, 'Fe': 4.0, 'F': 20.0}\",\"('Ca', 'F', 'Fe')\",OTHERS,False\nmp-1174631,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1185380,\"{'Li': 2.0, 'Mg': 2.0}\",\"('Li', 'Mg')\",OTHERS,False\nmp-8121,\"{'Si': 2.0, 'Cu': 2.0, 'Sm': 2.0}\",\"('Cu', 'Si', 'Sm')\",OTHERS,False\nmp-1204381,\"{'Ce': 8.0, 'Ni': 28.0}\",\"('Ce', 'Ni')\",OTHERS,False\nmp-1204517,\"{'Er': 4.0, 'Fe': 28.0, 'Si': 6.0}\",\"('Er', 'Fe', 'Si')\",OTHERS,False\nmp-765008,\"{'Li': 6.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-4093,\"{'O': 8.0, 'P': 2.0, 'Cu': 3.0}\",\"('Cu', 'O', 'P')\",OTHERS,False\nmp-772423,\"{'Ni': 3.0, 'S': 6.0, 'O': 24.0}\",\"('Ni', 'O', 'S')\",OTHERS,False\nmp-974882,\"{'Rb': 3.0, 'Mo': 1.0}\",\"('Mo', 'Rb')\",OTHERS,False\nmp-23612,\"{'B': 6.0, 'O': 10.0, 'K': 3.0, 'Br': 1.0}\",\"('B', 'Br', 'K', 'O')\",OTHERS,False\nmp-1193894,\"{'Cs': 12.0, 'Sb': 4.0, 'S': 12.0}\",\"('Cs', 'S', 'Sb')\",OTHERS,False\nmp-625619,\"{'H': 4.0, 'N': 2.0, 'O': 3.0}\",\"('H', 'N', 'O')\",OTHERS,False\nmp-571248,\"{'Cs': 4.0, 'Na': 2.0, 'Au': 6.0, 'C': 12.0, 'N': 12.0}\",\"('Au', 'C', 'Cs', 'N', 'Na')\",OTHERS,False\nmp-1245647,\"{'Zn': 4.0, 'Ag': 4.0, 'N': 4.0}\",\"('Ag', 'N', 'Zn')\",OTHERS,False\nmp-556171,\"{'Cd': 4.0, 'P': 8.0, 'Xe': 20.0, 'F': 88.0}\",\"('Cd', 'F', 'P', 'Xe')\",OTHERS,False\nmp-1227506,\"{'Ba': 4.0, 'Sr': 4.0, 'Si': 16.0}\",\"('Ba', 'Si', 'Sr')\",OTHERS,False\nmp-1019717,\"{'Cs': 4.0, 'B': 4.0, 'S': 12.0, 'O': 44.0}\",\"('B', 'Cs', 'O', 'S')\",OTHERS,False\nmvc-2247,\"{'Ba': 4.0, 'Ca': 2.0, 'Mn': 4.0, 'Cu': 2.0, 'F': 28.0}\",\"('Ba', 'Ca', 'Cu', 'F', 'Mn')\",OTHERS,False\nmp-694908,\"{'Sr': 3.0, 'La': 7.0, 'Ti': 3.0, 'Mn': 7.0, 'O': 30.0}\",\"('La', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1200512,\"{'Er': 12.0, 'Al': 86.0, 'W': 8.0}\",\"('Al', 'Er', 'W')\",OTHERS,False\nmp-754517,\"{'Sr': 1.0, 'Ca': 2.0, 'I': 6.0}\",\"('Ca', 'I', 'Sr')\",OTHERS,False\nmp-675833,\"{'Mg': 2.0, 'Mo': 12.0, 'Se': 16.0}\",\"('Mg', 'Mo', 'Se')\",OTHERS,False\nmp-990083,\"{'Mo': 18.0, 'S': 36.0}\",\"('Mo', 'S')\",OTHERS,False\nmp-1245166,\"{'Cr': 4.0, 'Fe': 28.0, 'O': 48.0}\",\"('Cr', 'Fe', 'O')\",OTHERS,False\nmp-865538,\"{'Ti': 2.0, 'Re': 1.0, 'Pd': 1.0}\",\"('Pd', 'Re', 'Ti')\",OTHERS,False\nmp-16000,\"{'Ti': 12.0, 'Se': 54.0, 'Ag': 2.0, 'Cs': 10.0}\",\"('Ag', 'Cs', 'Se', 'Ti')\",OTHERS,False\nmp-1185817,\"{'Mg': 5.0, 'In': 1.0}\",\"('In', 'Mg')\",OTHERS,False\nmp-1208259,\"{'Ti': 6.0, 'Co': 2.0, 'S': 12.0}\",\"('Co', 'S', 'Ti')\",OTHERS,False\nmp-1212693,\"{'Nd': 8.0, 'In': 24.0, 'Pt': 8.0}\",\"('In', 'Nd', 'Pt')\",OTHERS,False\nmp-567747,\"{'Co': 7.0, 'Mo': 6.0}\",\"('Co', 'Mo')\",OTHERS,False\nmp-778508,\"{'Li': 12.0, 'Mn': 4.0, 'V': 4.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-867809,\"{'V': 6.0, 'P': 6.0, 'O': 24.0}\",\"('O', 'P', 'V')\",OTHERS,False\nmp-672388,\"{'Th': 2.0, 'Pb': 2.0}\",\"('Pb', 'Th')\",OTHERS,False\nmp-758778,\"{'Li': 2.0, 'Fe': 8.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-24229,\"{'H': 20.0, 'C': 4.0, 'O': 22.0, 'Na': 4.0, 'Ca': 2.0}\",\"('C', 'Ca', 'H', 'Na', 'O')\",OTHERS,False\nmp-1206175,\"{'Eu': 2.0, 'Al': 2.0, 'Ge': 2.0}\",\"('Al', 'Eu', 'Ge')\",OTHERS,False\nmp-676089,\"{'Fe': 2.0, 'Co': 1.0, 'Se': 4.0}\",\"('Co', 'Fe', 'Se')\",OTHERS,False\nmp-706400,\"{'Ba': 4.0, 'P': 8.0, 'H': 16.0, 'O': 32.0}\",\"('Ba', 'H', 'O', 'P')\",OTHERS,False\nmp-632672,\"{'Li': 1.0, 'H': 1.0, 'F': 2.0}\",\"('F', 'H', 'Li')\",OTHERS,False\nmp-1218676,\"{'Sr': 4.0, 'La': 1.0, 'Fe': 2.0, 'Co': 3.0, 'O': 15.0}\",\"('Co', 'Fe', 'La', 'O', 'Sr')\",OTHERS,False\nmp-1210772,\"{'Li': 2.0, 'H': 6.0, 'Pt': 1.0, 'O': 6.0}\",\"('H', 'Li', 'O', 'Pt')\",OTHERS,False\nmp-542533,\"{'Cs': 4.0, 'Na': 4.0, 'O': 52.0, 'B': 16.0, 'H': 48.0}\",\"('B', 'Cs', 'H', 'Na', 'O')\",OTHERS,False\nmp-774411,\"{'Li': 2.0, 'V': 1.0, 'O': 2.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1208008,\"{'Tm': 8.0, 'Si': 12.0, 'Pd': 4.0}\",\"('Pd', 'Si', 'Tm')\",OTHERS,False\nmp-1216020,\"{'Zn': 35.0, 'Cu': 17.0}\",\"('Cu', 'Zn')\",OTHERS,False\nmvc-4363,\"{'Al': 8.0, 'Si': 12.0, 'W': 12.0, 'O': 48.0}\",\"('Al', 'O', 'Si', 'W')\",OTHERS,False\nmp-973261,\"{'Mg': 4.0, 'Sn': 2.0, 'O': 8.0}\",\"('Mg', 'O', 'Sn')\",OTHERS,False\nmp-1197032,\"{'Ag': 28.0, 'P': 4.0, 'S': 24.0}\",\"('Ag', 'P', 'S')\",OTHERS,False\nmvc-14714,\"{'Zn': 1.0, 'Mo': 1.0, 'F': 6.0}\",\"('F', 'Mo', 'Zn')\",OTHERS,False\nmp-1029354,\"{'Mn': 2.0, 'Zn': 4.0, 'N': 6.0}\",\"('Mn', 'N', 'Zn')\",OTHERS,False\nmp-13182,\"{'Li': 4.0, 'O': 10.0, 'Ti': 2.0, 'Ge': 2.0}\",\"('Ge', 'Li', 'O', 'Ti')\",OTHERS,False\nmvc-8331,\"{'V': 4.0, 'Zn': 1.0, 'Cu': 3.0, 'O': 12.0}\",\"('Cu', 'O', 'V', 'Zn')\",OTHERS,False\nmp-761118,\"{'Ti': 7.0, 'Sn': 3.0, 'O': 20.0}\",\"('O', 'Sn', 'Ti')\",OTHERS,False\nmp-9612,\"{'O': 44.0, 'La': 12.0, 'Ir': 12.0}\",\"('Ir', 'La', 'O')\",OTHERS,False\nmp-768854,\"{'Li': 10.0, 'Mn': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-780461,\"{'Mn': 12.0, 'O': 10.0, 'F': 14.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-768350,\"{'Ba': 8.0, 'Y': 4.0, 'F': 28.0}\",\"('Ba', 'F', 'Y')\",OTHERS,False\nmp-1228377,\"{'Ba': 3.0, 'Sr': 1.0, 'Co': 4.0, 'O': 12.0}\",\"('Ba', 'Co', 'O', 'Sr')\",OTHERS,False\nmp-1216661,\"{'Ti': 1.0, 'Zn': 1.0, 'Cu': 2.0}\",\"('Cu', 'Ti', 'Zn')\",OTHERS,False\nmp-1095821,\"{'Ti': 2.0, 'Cr': 1.0, 'Co': 1.0}\",\"('Co', 'Cr', 'Ti')\",OTHERS,False\nmp-557121,\"{'K': 4.0, 'Sn': 2.0, 'Au': 4.0, 'S': 8.0}\",\"('Au', 'K', 'S', 'Sn')\",OTHERS,False\nmp-616577,\"{'Sr': 12.0, 'B': 4.0, 'C': 4.0, 'N': 4.0, 'Cl': 8.0}\",\"('B', 'C', 'Cl', 'N', 'Sr')\",OTHERS,False\nmp-867860,\"{'Sm': 1.0, 'Zn': 1.0, 'Au': 2.0}\",\"('Au', 'Sm', 'Zn')\",OTHERS,False\nmp-1245973,\"{'Mn': 16.0, 'Ge': 4.0, 'N': 16.0}\",\"('Ge', 'Mn', 'N')\",OTHERS,False\nmp-570613,\"{'Cd': 6.0, 'I': 12.0}\",\"('Cd', 'I')\",OTHERS,False\nmp-1220922,\"{'Na': 4.0, 'Ti': 4.0, 'Fe': 4.0, 'O': 16.0}\",\"('Fe', 'Na', 'O', 'Ti')\",OTHERS,False\nmp-1208192,\"{'Tm': 12.0, 'In': 2.0, 'Fe': 3.0}\",\"('Fe', 'In', 'Tm')\",OTHERS,False\nmp-1094126,\"{'Sm': 2.0, 'Fe': 2.0, 'O': 5.0}\",\"('Fe', 'O', 'Sm')\",OTHERS,False\nmp-977590,\"{'Nd': 1.0, 'In': 1.0, 'Pd': 2.0}\",\"('In', 'Nd', 'Pd')\",OTHERS,False\nmp-1096261,\"{'Mg': 1.0, 'Ga': 1.0, 'Pt': 2.0}\",\"('Ga', 'Mg', 'Pt')\",OTHERS,False\nmp-560209,\"{'Li': 18.0, 'Al': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Al', 'Li', 'O', 'P')\",OTHERS,False\nmp-1179413,\"{'Ta': 6.0, 'S': 12.0}\",\"('S', 'Ta')\",OTHERS,False\nmp-675037,\"{'Eu': 2.0, 'Sm': 4.0, 'S': 8.0}\",\"('Eu', 'S', 'Sm')\",OTHERS,False\nmp-677292,\"{'Cs': 6.0, 'Ca': 3.0, 'Al': 12.0, 'Si': 12.0, 'O': 48.0}\",\"('Al', 'Ca', 'Cs', 'O', 'Si')\",OTHERS,False\nmp-1035858,\"{'Y': 1.0, 'Mg': 14.0, 'B': 1.0, 'O': 16.0}\",\"('B', 'Mg', 'O', 'Y')\",OTHERS,False\nmp-1206849,\"{'Sr': 2.0, 'P': 2.0, 'Au': 2.0}\",\"('Au', 'P', 'Sr')\",OTHERS,False\nmvc-7989,\"{'Zn': 4.0, 'Cr': 4.0, 'As': 8.0, 'O': 28.0}\",\"('As', 'Cr', 'O', 'Zn')\",OTHERS,False\nmp-973675,\"{'Hf': 18.0, 'As': 2.0, 'W': 8.0}\",\"('As', 'Hf', 'W')\",OTHERS,False\nmp-699393,\"{'Yb': 2.0, 'Si': 12.0, 'H': 108.0, 'C': 36.0, 'N': 6.0}\",\"('C', 'H', 'N', 'Si', 'Yb')\",OTHERS,False\nmp-780578,\"{'Li': 8.0, 'Mn': 2.0, 'Si': 6.0, 'O': 18.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1204346,\"{'Fe': 4.0, 'S': 4.0, 'O': 34.0}\",\"('Fe', 'O', 'S')\",OTHERS,False\nmp-1218440,\"{'Sr': 3.0, 'Fe': 2.0, 'Te': 1.0, 'O': 9.0}\",\"('Fe', 'O', 'Sr', 'Te')\",OTHERS,False\nmp-683971,\"{'Sm': 15.0, 'Ga': 44.0, 'Ni': 52.0}\",\"('Ga', 'Ni', 'Sm')\",OTHERS,False\nmp-554094,\"{'Ca': 2.0, 'Mg': 4.0, 'S': 6.0, 'O': 24.0}\",\"('Ca', 'Mg', 'O', 'S')\",OTHERS,False\nmvc-10399,\"{'Ho': 2.0, 'Zn': 2.0, 'W': 4.0, 'O': 12.0}\",\"('Ho', 'O', 'W', 'Zn')\",OTHERS,False\nmp-603327,\"{'H': 24.0, 'S': 8.0, 'N': 8.0, 'O': 24.0}\",\"('H', 'N', 'O', 'S')\",OTHERS,False\nmp-1208698,\"{'Sm': 2.0, 'P': 6.0, 'O': 18.0}\",\"('O', 'P', 'Sm')\",OTHERS,False\nmp-1187496,\"{'Tl': 3.0, 'Si': 1.0}\",\"('Si', 'Tl')\",OTHERS,False\nmp-34144,\"{'Al': 12.0, 'Mg': 6.0, 'O': 24.0}\",\"('Al', 'Mg', 'O')\",OTHERS,False\nmp-1245031,\"{'Ti': 39.0, 'O': 65.0}\",\"('O', 'Ti')\",OTHERS,False\nmp-695597,\"{'Na': 4.0, 'Mg': 12.0, 'Si': 16.0, 'O': 44.0, 'F': 4.0}\",\"('F', 'Mg', 'Na', 'O', 'Si')\",OTHERS,False\nmp-733998,\"{'Tb': 4.0, 'H': 48.0, 'S': 8.0, 'N': 4.0, 'O': 48.0}\",\"('H', 'N', 'O', 'S', 'Tb')\",OTHERS,False\nmp-1225133,\"{'Fe': 3.0, 'Cu': 1.0, 'As': 2.0}\",\"('As', 'Cu', 'Fe')\",OTHERS,False\nmp-780871,\"{'Li': 6.0, 'Fe': 12.0, 'Si': 12.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-541353,\"{'K': 8.0, 'Tc': 12.0, 'S': 24.0}\",\"('K', 'S', 'Tc')\",OTHERS,False\nmp-24809,\"{'H': 4.0, 'Ca': 2.0}\",\"('Ca', 'H')\",OTHERS,False\nmp-757703,\"{'Mn': 3.0, 'Co': 1.0, 'Sn': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Co', 'Mn', 'O', 'P', 'Sn')\",OTHERS,False\nmp-560584,\"{'Si': 6.0, 'Ag': 18.0, 'O': 21.0}\",\"('Ag', 'O', 'Si')\",OTHERS,False\nmp-27821,\"{'P': 11.0, 'Ag': 3.0}\",\"('Ag', 'P')\",OTHERS,False\nmp-976355,\"{'Lu': 3.0, 'Si': 1.0}\",\"('Lu', 'Si')\",OTHERS,False\nmp-1208963,\"{'Sm': 16.0, 'Mg': 4.0, 'Pd': 4.0}\",\"('Mg', 'Pd', 'Sm')\",OTHERS,False\nmp-1220924,\"{'Na': 2.0, 'Pr': 2.0, 'Ti': 4.0, 'O': 12.0}\",\"('Na', 'O', 'Pr', 'Ti')\",OTHERS,False\nmvc-13319,\"{'Mg': 4.0, 'Nb': 4.0, 'Fe': 2.0, 'O': 16.0}\",\"('Fe', 'Mg', 'Nb', 'O')\",OTHERS,False\nmp-1093588,\"{'Mg': 1.0, 'Sn': 1.0, 'Pt': 2.0}\",\"('Mg', 'Pt', 'Sn')\",OTHERS,False\nmp-1001021,\"{'Y': 4.0, 'Zn': 2.0, 'Se': 8.0}\",\"('Se', 'Y', 'Zn')\",OTHERS,False\nmp-1228040,\"{'Ca': 1.0, 'U': 2.0, 'P': 2.0, 'O': 18.0}\",\"('Ca', 'O', 'P', 'U')\",OTHERS,False\nmp-754297,\"{'Ti': 2.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('H', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1186351,\"{'Nd': 1.0, 'Sm': 1.0, 'In': 2.0}\",\"('In', 'Nd', 'Sm')\",OTHERS,False\nmp-1227127,\"{'Ca': 4.0, 'Mg': 4.0, 'Cd': 4.0}\",\"('Ca', 'Cd', 'Mg')\",OTHERS,False\nmp-1038146,\"{'K': 1.0, 'Mg': 30.0, 'Mn': 1.0, 'O': 32.0}\",\"('K', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-543028,\"{'Tl': 16.0, 'Te': 8.0, 'O': 24.0}\",\"('O', 'Te', 'Tl')\",OTHERS,False\nmp-865270,\"{'Tm': 1.0, 'Ta': 1.0, 'Os': 2.0}\",\"('Os', 'Ta', 'Tm')\",OTHERS,False\nmp-1394,\"{'O': 1.0, 'Rb': 2.0}\",\"('O', 'Rb')\",OTHERS,False\nmp-1110633,\"{'K': 1.0, 'Rb': 2.0, 'Sc': 1.0, 'I': 6.0}\",\"('I', 'K', 'Rb', 'Sc')\",OTHERS,False\nmp-1103367,\"{'C': 4.0, 'N': 4.0, 'O': 4.0}\",\"('C', 'N', 'O')\",OTHERS,False\nmp-759637,\"{'Na': 8.0, 'Sr': 4.0, 'Li': 4.0, 'V': 4.0, 'P': 8.0, 'O': 36.0}\",\"('Li', 'Na', 'O', 'P', 'Sr', 'V')\",OTHERS,False\nmp-1217722,\"{'Tb': 4.0, 'Gd': 8.0, 'Ga': 20.0, 'O': 48.0}\",\"('Ga', 'Gd', 'O', 'Tb')\",OTHERS,False\nmp-1220518,\"{'Nb': 4.0, 'Ni': 1.0, 'C': 2.0, 'S': 4.0}\",\"('C', 'Nb', 'Ni', 'S')\",OTHERS,False\nmp-675980,\"{'Cr': 4.0, 'P': 12.0, 'S': 36.0}\",\"('Cr', 'P', 'S')\",OTHERS,False\nmp-862962,\"{'Ca': 1.0, 'La': 1.0, 'Zn': 2.0}\",\"('Ca', 'La', 'Zn')\",OTHERS,False\nmp-1211671,\"{'La': 6.0, 'Ge': 10.0}\",\"('Ge', 'La')\",OTHERS,False\nmp-1104114,\"{'Eu': 1.0, 'Mo': 6.0, 'Se': 8.0}\",\"('Eu', 'Mo', 'Se')\",OTHERS,False\nmp-626529,\"{'H': 28.0, 'N': 4.0, 'O': 24.0}\",\"('H', 'N', 'O')\",OTHERS,False\nmp-1213891,\"{'Cs': 12.0, 'Pr': 4.0, 'Cl': 24.0}\",\"('Cl', 'Cs', 'Pr')\",OTHERS,False\nmp-1176710,\"{'Li': 8.0, 'Mn': 8.0, 'P': 16.0, 'O': 56.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1206860,\"{'Nd': 3.0, 'Mg': 3.0, 'In': 3.0}\",\"('In', 'Mg', 'Nd')\",OTHERS,False\nmp-1214940,\"{'Al': 4.0, 'P': 4.0, 'H': 8.0, 'O': 16.0}\",\"('Al', 'H', 'O', 'P')\",OTHERS,False\nmp-1187907,\"{'Yb': 1.0, 'Br': 1.0}\",\"('Br', 'Yb')\",OTHERS,False\nmp-1076638,\"{'Rb': 1.0, 'V': 1.0, 'O': 3.0}\",\"('O', 'Rb', 'V')\",OTHERS,False\nmp-1185055,\"{'Hf': 8.0, 'In': 4.0, 'Ni': 8.0}\",\"('Hf', 'In', 'Ni')\",OTHERS,False\nmp-1221134,\"{'Na': 1.0, 'Ca': 2.0, 'Mg': 5.0, 'Al': 1.0, 'Si': 7.0, 'O': 22.0, 'F': 2.0}\",\"('Al', 'Ca', 'F', 'Mg', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1021466,\"{'Cs': 1.0, 'P': 1.0, 'Pb': 1.0, 'I': 2.0, 'F': 6.0}\",\"('Cs', 'F', 'I', 'P', 'Pb')\",OTHERS,False\nmp-1203434,\"{'Na': 16.0, 'Fe': 16.0, 'F': 56.0}\",\"('F', 'Fe', 'Na')\",OTHERS,False\nmp-1183797,\"{'Ce': 4.0, 'Si': 10.0, 'Ni': 6.0}\",\"('Ce', 'Ni', 'Si')\",OTHERS,False\nmp-720118,\"{'Sr': 3.0, 'Nd': 10.0, 'Al': 12.0, 'Si': 18.0, 'N': 36.0, 'O': 18.0}\",\"('Al', 'N', 'Nd', 'O', 'Si', 'Sr')\",OTHERS,False\nmp-775190,\"{'Li': 2.0, 'V': 3.0, 'Cu': 1.0, 'O': 8.0}\",\"('Cu', 'Li', 'O', 'V')\",OTHERS,False\nmp-1079706,\"{'Ti': 5.0, 'Al': 2.0, 'C': 3.0}\",\"('Al', 'C', 'Ti')\",OTHERS,False\nmvc-15532,\"{'Zn': 1.0, 'Cr': 2.0, 'N': 2.0}\",\"('Cr', 'N', 'Zn')\",OTHERS,False\nmp-1186461,\"{'Pm': 2.0, 'Ga': 1.0, 'Hg': 1.0}\",\"('Ga', 'Hg', 'Pm')\",OTHERS,False\nmp-22304,\"{'Se': 4.0, 'Cd': 1.0, 'In': 2.0}\",\"('Cd', 'In', 'Se')\",OTHERS,False\nmp-556569,\"{'Sr': 2.0, 'Ta': 4.0, 'Bi': 4.0, 'O': 18.0}\",\"('Bi', 'O', 'Sr', 'Ta')\",OTHERS,False\nmp-556665,\"{'Tl': 4.0, 'Bi': 4.0, 'P': 8.0, 'S': 28.0}\",\"('Bi', 'P', 'S', 'Tl')\",OTHERS,False\nmp-11567,\"{'Sc': 1.0, 'Zn': 12.0}\",\"('Sc', 'Zn')\",OTHERS,False\nmp-1194580,\"{'Rb': 4.0, 'Na': 8.0, 'B': 24.0, 'Cl': 4.0, 'O': 40.0}\",\"('B', 'Cl', 'Na', 'O', 'Rb')\",OTHERS,False\nmp-1174913,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-850403,\"{'Li': 4.0, 'Fe': 4.0, 'P': 4.0, 'H': 8.0, 'O': 20.0}\",\"('Fe', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-1214494,\"{'Ba': 10.0, 'Y': 4.0, 'Zr': 2.0, 'Al': 4.0, 'O': 26.0}\",\"('Al', 'Ba', 'O', 'Y', 'Zr')\",OTHERS,False\nmp-1084796,\"{'Ca': 1.0, 'Zn': 3.0, 'Se': 4.0}\",\"('Ca', 'Se', 'Zn')\",OTHERS,False\nmp-977592,\"{'Bi': 4.0, 'Rh': 6.0, 'S': 4.0}\",\"('Bi', 'Rh', 'S')\",OTHERS,False\nmp-754860,\"{'Co': 10.0, 'O': 5.0, 'F': 15.0}\",\"('Co', 'F', 'O')\",OTHERS,False\nmvc-15097,\"{'Y': 2.0, 'Cu': 3.0, 'W': 6.0, 'O': 24.0}\",\"('Cu', 'O', 'W', 'Y')\",OTHERS,False\nmp-10224,\"{'Na': 1.0, 'S': 2.0, 'V': 1.0}\",\"('Na', 'S', 'V')\",OTHERS,False\nmp-1102017,\"{'Cd': 4.0, 'Br': 4.0, 'O': 4.0}\",\"('Br', 'Cd', 'O')\",OTHERS,False\nmp-1017983,\"{'Ti': 1.0, 'Mo': 3.0}\",\"('Mo', 'Ti')\",OTHERS,False\nmp-1037677,\"{'Li': 1.0, 'Mg': 30.0, 'Fe': 1.0, 'O': 32.0}\",\"('Fe', 'Li', 'Mg', 'O')\",OTHERS,False\nmp-1076858,\"{'Sr': 7.0, 'Ca': 1.0, 'Fe': 7.0, 'Co': 1.0, 'O': 24.0}\",\"('Ca', 'Co', 'Fe', 'O', 'Sr')\",OTHERS,False\nmp-973779,\"{'Nd': 2.0, 'Cd': 1.0, 'Hg': 1.0}\",\"('Cd', 'Hg', 'Nd')\",OTHERS,False\nmp-560164,\"{'Li': 3.0, 'Al': 1.0, 'Mo': 2.0, 'As': 2.0, 'O': 14.0}\",\"('Al', 'As', 'Li', 'Mo', 'O')\",OTHERS,False\nmp-758877,\"{'Li': 14.0, 'Mn': 14.0, 'P': 12.0, 'O': 48.0, 'F': 6.0}\",\"('F', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1250185,\"{'Ca': 8.0, 'Mn': 8.0, 'Si': 12.0, 'O': 48.0}\",\"('Ca', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1114466,\"{'Rb': 2.0, 'Al': 1.0, 'Tl': 1.0, 'Br': 6.0}\",\"('Al', 'Br', 'Rb', 'Tl')\",OTHERS,False\nmp-1223817,\"{'K': 4.0, 'Mo': 1.0, 'W': 1.0, 'O': 8.0}\",\"('K', 'Mo', 'O', 'W')\",OTHERS,False\nmp-1247276,\"{'Mg': 2.0, 'Ti': 1.0, 'Mn': 3.0, 'S': 8.0}\",\"('Mg', 'Mn', 'S', 'Ti')\",OTHERS,False\nmp-770456,\"{'Li': 6.0, 'Ti': 2.0, 'O': 7.0}\",\"('Li', 'O', 'Ti')\",OTHERS,False\nmp-570629,\"{'Ce': 8.0, 'Ru': 6.0}\",\"('Ce', 'Ru')\",OTHERS,False\nmp-13003,\"{'O': 12.0, 'Ge': 4.0, 'Cd': 4.0}\",\"('Cd', 'Ge', 'O')\",OTHERS,False\nmp-772842,\"{'Na': 8.0, 'Ge': 8.0, 'O': 20.0}\",\"('Ge', 'Na', 'O')\",OTHERS,False\nmp-865386,\"{'Gd': 2.0, 'Ga': 6.0}\",\"('Ga', 'Gd')\",OTHERS,False\nmp-1202680,\"{'Co': 12.0, 'Te': 8.0, 'O': 32.0}\",\"('Co', 'O', 'Te')\",OTHERS,False\nmp-978512,\"{'Sm': 1.0, 'Tm': 1.0, 'Mg': 2.0}\",\"('Mg', 'Sm', 'Tm')\",OTHERS,False\nmp-505014,\"{'Cs': 8.0, 'Sn': 4.0, 'Te': 14.0}\",\"('Cs', 'Sn', 'Te')\",OTHERS,False\nmp-569940,\"{'K': 6.0, 'Bi': 2.0}\",\"('Bi', 'K')\",OTHERS,False\nmp-677659,\"{'Sr': 7.0, 'La': 7.0, 'Cu': 7.0, 'Ru': 7.0, 'O': 42.0}\",\"('Cu', 'La', 'O', 'Ru', 'Sr')\",OTHERS,False\nmp-1196332,\"{'Fe': 8.0, 'H': 40.0, 'S': 8.0, 'O': 44.0}\",\"('Fe', 'H', 'O', 'S')\",OTHERS,False\nmp-6008,\"{'O': 48.0, 'Al': 8.0, 'Si': 12.0, 'Ca': 12.0}\",\"('Al', 'Ca', 'O', 'Si')\",OTHERS,False\nmp-504944,\"{'P': 8.0, 'Na': 8.0, 'O': 32.0, 'H': 16.0}\",\"('H', 'Na', 'O', 'P')\",OTHERS,False\nmp-1095460,\"{'Hg': 4.0, 'Sb': 1.0, 'H': 1.0, 'O': 6.0}\",\"('H', 'Hg', 'O', 'Sb')\",OTHERS,False\nmp-1192354,\"{'Eu': 4.0, 'Ga': 4.0, 'Ge': 2.0, 'S': 14.0}\",\"('Eu', 'Ga', 'Ge', 'S')\",OTHERS,False\nmp-1180149,\"{'Na': 2.0, 'V': 4.0, 'O': 10.0}\",\"('Na', 'O', 'V')\",OTHERS,False\nmp-1213703,\"{'Cs': 3.0, 'Ca': 2.0, 'Cl': 7.0}\",\"('Ca', 'Cl', 'Cs')\",OTHERS,False\nmp-1186408,\"{'Pa': 2.0, 'Si': 6.0}\",\"('Pa', 'Si')\",OTHERS,False\nmp-567614,\"{'Tb': 4.0, 'Co': 4.0, 'I': 2.0}\",\"('Co', 'I', 'Tb')\",OTHERS,False\nmp-849366,\"{'Li': 2.0, 'Co': 6.0, 'O': 2.0, 'F': 10.0}\",\"('Co', 'F', 'Li', 'O')\",OTHERS,False\nmp-769001,\"{'Li': 12.0, 'Sn': 4.0, 'B': 8.0, 'S': 2.0, 'O': 32.0}\",\"('B', 'Li', 'O', 'S', 'Sn')\",OTHERS,False\nmp-774516,\"{'Li': 8.0, 'Mg': 3.0, 'Cu': 9.0, 'Si': 16.0, 'O': 48.0}\",\"('Cu', 'Li', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1180667,\"{'La': 6.0, 'Fe': 2.0, 'O': 12.0}\",\"('Fe', 'La', 'O')\",OTHERS,False\nmp-1197627,\"{'Pu': 4.0, 'Te': 8.0, 'Cl': 4.0, 'O': 22.0}\",\"('Cl', 'O', 'Pu', 'Te')\",OTHERS,False\nmp-1187466,\"{'Ti': 3.0, 'Cd': 1.0}\",\"('Cd', 'Ti')\",OTHERS,False\nmp-673029,\"{'Li': 2.0, 'Sn': 4.0, 'P': 10.0, 'O': 32.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1205209,\"{'Fe': 8.0, 'S': 8.0, 'O': 56.0}\",\"('Fe', 'O', 'S')\",OTHERS,False\nmp-1080029,\"{'Ba': 2.0, 'Mn': 2.0, 'Se': 2.0, 'O': 1.0, 'F': 2.0}\",\"('Ba', 'F', 'Mn', 'O', 'Se')\",OTHERS,False\nmp-1196548,\"{'H': 36.0, 'C': 32.0, 'N': 4.0, 'O': 36.0}\",\"('C', 'H', 'N', 'O')\",OTHERS,False\nmp-707443,\"{'Na': 7.0, 'Al': 1.0, 'H': 2.0, 'C': 4.0, 'O': 12.0, 'F': 4.0}\",\"('Al', 'C', 'F', 'H', 'Na', 'O')\",OTHERS,False\nmp-1227803,\"{'Ba': 4.0, 'Sn': 8.0, 'Bi': 4.0}\",\"('Ba', 'Bi', 'Sn')\",OTHERS,False\nmp-22239,\"{'Ge': 4.0, 'Rh': 4.0}\",\"('Ge', 'Rh')\",OTHERS,False\nmp-1222518,\"{'Li': 4.0, 'Te': 4.0, 'H': 20.0, 'O': 24.0}\",\"('H', 'Li', 'O', 'Te')\",OTHERS,False\nmp-973538,\"{'Lu': 2.0, 'Al': 1.0, 'Zn': 1.0}\",\"('Al', 'Lu', 'Zn')\",OTHERS,False\nmp-756535,\"{'Li': 2.0, 'Fe': 2.0, 'F': 8.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-768369,\"{'Ba': 8.0, 'Y': 4.0, 'F': 28.0}\",\"('Ba', 'F', 'Y')\",OTHERS,False\nmvc-6817,\"{'Zn': 4.0, 'Cr': 8.0, 'O': 16.0}\",\"('Cr', 'O', 'Zn')\",OTHERS,False\nmp-1202237,\"{'Mg': 4.0, 'B': 8.0, 'H': 52.0, 'N': 12.0}\",\"('B', 'H', 'Mg', 'N')\",OTHERS,False\nmp-849419,\"{'Fe': 10.0, 'O': 9.0, 'F': 11.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1208841,\"{'Sr': 2.0, 'Fe': 1.0, 'As': 2.0, 'F': 1.0}\",\"('As', 'F', 'Fe', 'Sr')\",OTHERS,False\nmp-862676,\"{'Li': 1.0, 'Ho': 1.0, 'In': 2.0}\",\"('Ho', 'In', 'Li')\",OTHERS,False\nmp-1180387,\"{'Mg': 1.0, 'Mn': 2.0, 'Br': 6.0, 'O': 12.0}\",\"('Br', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-1196485,\"{'Sm': 12.0, 'In': 4.0, 'S': 24.0}\",\"('In', 'S', 'Sm')\",OTHERS,False\nmp-1028607,\"{'Te': 4.0, 'Mo': 1.0, 'W': 3.0, 'Se': 4.0}\",\"('Mo', 'Se', 'Te', 'W')\",OTHERS,False\nmp-773118,\"{'Ba': 6.0, 'Li': 2.0, 'Ta': 9.0, 'Ti': 7.0, 'O': 42.0}\",\"('Ba', 'Li', 'O', 'Ta', 'Ti')\",OTHERS,False\nmp-1096115,\"{'Li': 1.0, 'Pd': 2.0, 'Au': 1.0}\",\"('Au', 'Li', 'Pd')\",OTHERS,False\nmp-1218186,\"{'Sr': 1.0, 'Mn': 1.0, 'Te': 1.0, 'O': 6.0}\",\"('Mn', 'O', 'Sr', 'Te')\",OTHERS,False\nmvc-6562,\"{'Y': 2.0, 'W': 6.0, 'F': 30.0}\",\"('F', 'W', 'Y')\",OTHERS,False\nmp-1213751,\"{'Cs': 8.0, 'B': 48.0, 'H': 4.0, 'F': 48.0}\",\"('B', 'Cs', 'F', 'H')\",OTHERS,False\nmp-684950,\"{'K': 1.0, 'Na': 1.0, 'Zr': 2.0, 'Be': 1.0, 'P': 4.0, 'O': 16.0}\",\"('Be', 'K', 'Na', 'O', 'P', 'Zr')\",OTHERS,False\nmp-1213907,\"{'Ce': 4.0, 'Ga': 18.0, 'Rh': 6.0}\",\"('Ce', 'Ga', 'Rh')\",OTHERS,False\nmp-1112422,\"{'K': 2.0, 'Nd': 1.0, 'Au': 1.0, 'Cl': 6.0}\",\"('Au', 'Cl', 'K', 'Nd')\",OTHERS,False\nmp-28642,\"{'F': 72.0, 'Al': 8.0, 'Ba': 24.0}\",\"('Al', 'Ba', 'F')\",OTHERS,False\nmp-16591,\"{'O': 28.0, 'Si': 8.0, 'S': 12.0, 'Tm': 16.0}\",\"('O', 'S', 'Si', 'Tm')\",OTHERS,False\nmp-28143,\"{'H': 32.0, 'N': 8.0, 'S': 20.0}\",\"('H', 'N', 'S')\",OTHERS,False\nmp-1080155,\"{'Te': 4.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-690522,\"{'Mo': 2.0, 'Cl': 4.0, 'O': 1.0}\",\"('Cl', 'Mo', 'O')\",OTHERS,False\nmvc-6418,\"{'Ca': 2.0, 'Cr': 4.0, 'O': 8.0}\",\"('Ca', 'Cr', 'O')\",OTHERS,False\nmp-758463,\"{'Li': 1.0, 'Ni': 1.0, 'Sn': 1.0, 'O': 4.0}\",\"('Li', 'Ni', 'O', 'Sn')\",OTHERS,False\nmp-1203016,\"{'Ba': 18.0, 'Al': 18.0, 'As': 30.0}\",\"('Al', 'As', 'Ba')\",OTHERS,False\nmp-556591,\"{'Si': 18.0, 'O': 36.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1011376,\"{'Ce': 1.0, 'Se': 2.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-23486,\"{'Cl': 6.0, 'Ni': 2.0, 'Rb': 2.0}\",\"('Cl', 'Ni', 'Rb')\",OTHERS,False\nmp-867583,\"{'Ag': 6.0, 'Sb': 6.0, 'O': 18.0}\",\"('Ag', 'O', 'Sb')\",OTHERS,False\nmp-9205,\"{'O': 4.0, 'F': 2.0, 'K': 2.0, 'Se': 2.0}\",\"('F', 'K', 'O', 'Se')\",OTHERS,False\nmp-758923,\"{'Sb': 4.0, 'As': 4.0, 'Au': 4.0, 'F': 36.0}\",\"('As', 'Au', 'F', 'Sb')\",OTHERS,False\nmp-18852,\"{'O': 8.0, 'Na': 4.0, 'Mo': 2.0}\",\"('Mo', 'Na', 'O')\",OTHERS,False\nmp-1101165,\"{'Yb': 2.0, 'Bi': 2.0, 'O': 6.0}\",\"('Bi', 'O', 'Yb')\",OTHERS,False\nmp-1203225,\"{'Al': 4.0, 'Se': 6.0, 'O': 24.0}\",\"('Al', 'O', 'Se')\",OTHERS,False\nmp-1212687,\"{'Fe': 2.0, 'Ni': 2.0, 'Ag': 4.0, 'F': 14.0}\",\"('Ag', 'F', 'Fe', 'Ni')\",OTHERS,False\nmp-757269,\"{'Li': 6.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-867161,\"{'Li': 1.0, 'In': 3.0}\",\"('In', 'Li')\",OTHERS,False\nmp-865533,\"{'Ti': 2.0, 'Re': 1.0, 'Os': 1.0}\",\"('Os', 'Re', 'Ti')\",OTHERS,False\nmp-1226930,\"{'Cr': 19.0, 'S': 30.0}\",\"('Cr', 'S')\",OTHERS,False\nmp-966801,\"{'Li': 4.0, 'Ca': 4.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Ca', 'Li', 'O')\",OTHERS,False\nmp-1184131,\"{'Er': 2.0, 'Ag': 1.0, 'Os': 1.0}\",\"('Ag', 'Er', 'Os')\",OTHERS,False\nmp-1222558,\"{'Li': 3.0, 'Ag': 3.0, 'Ge': 2.0}\",\"('Ag', 'Ge', 'Li')\",OTHERS,False\nmp-695325,\"{'Ti': 5.0, 'Zn': 1.0, 'Bi': 2.0, 'Pb': 4.0, 'O': 18.0}\",\"('Bi', 'O', 'Pb', 'Ti', 'Zn')\",OTHERS,False\nmp-675045,\"{'Li': 14.0, 'V': 2.0, 'P': 8.0}\",\"('Li', 'P', 'V')\",OTHERS,False\nmp-758947,\"{'Li': 14.0, 'Mn': 14.0, 'P': 12.0, 'O': 48.0, 'F': 6.0}\",\"('F', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1200662,\"{'Hg': 8.0, 'S': 8.0, 'O': 32.0}\",\"('Hg', 'O', 'S')\",OTHERS,False\nmp-1217221,\"{'Ti': 4.0, 'Fe': 1.0, 'Co': 1.0, 'S': 8.0}\",\"('Co', 'Fe', 'S', 'Ti')\",OTHERS,False\nmp-10647,\"{'Se': 1.0, 'Tl': 1.0}\",\"('Se', 'Tl')\",OTHERS,False\nmp-15960,\"{'Li': 40.0, 'O': 32.0, 'Al': 8.0}\",\"('Al', 'Li', 'O')\",OTHERS,False\nmp-9847,\"{'P': 10.0, 'Yb': 2.0}\",\"('P', 'Yb')\",OTHERS,False\nmvc-1915,\"{'Ca': 2.0, 'Ti': 9.0, 'O': 13.0}\",\"('Ca', 'O', 'Ti')\",OTHERS,False\nmvc-9330,\"{'Pr': 2.0, 'Zn': 2.0, 'Cu': 4.0, 'O': 12.0}\",\"('Cu', 'O', 'Pr', 'Zn')\",OTHERS,False\nmp-1210714,\"{'V': 4.0, 'H': 48.0, 'S': 4.0, 'O': 40.0}\",\"('H', 'O', 'S', 'V')\",OTHERS,False\nmp-1079433,\"{'Ba': 1.0, 'Mg': 4.0, 'Si': 3.0}\",\"('Ba', 'Mg', 'Si')\",OTHERS,False\nmp-1224891,\"{'Ga': 3.0, 'Cu': 3.0, 'Si': 1.0, 'Se': 8.0}\",\"('Cu', 'Ga', 'Se', 'Si')\",OTHERS,False\nmvc-7066,\"{'Mg': 4.0, 'Mo': 8.0, 'O': 16.0}\",\"('Mg', 'Mo', 'O')\",OTHERS,False\nmp-1183046,\"{'Zr': 2.0, 'Ti': 6.0}\",\"('Ti', 'Zr')\",OTHERS,False\nmp-1114452,\"{'Rb': 2.0, 'Na': 1.0, 'Pr': 1.0, 'F': 6.0}\",\"('F', 'Na', 'Pr', 'Rb')\",OTHERS,False\nmp-861726,\"{'Pu': 1.0, 'Bi': 1.0, 'Pd': 2.0}\",\"('Bi', 'Pd', 'Pu')\",OTHERS,False\nmp-1225302,\"{'Fe': 10.0, 'P': 6.0, 'O': 34.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-12304,\"{'Sc': 22.0, 'Ir': 8.0}\",\"('Ir', 'Sc')\",OTHERS,False\nmp-676275,\"{'Nd': 2.0, 'Pb': 5.0, 'F': 16.0}\",\"('F', 'Nd', 'Pb')\",OTHERS,False\nmp-1080472,\"{'Pt': 1.0, 'N': 2.0, 'Cl': 6.0}\",\"('Cl', 'N', 'Pt')\",OTHERS,False\nmp-1211232,\"{'La': 2.0, 'Al': 6.0, 'Ni': 4.0}\",\"('Al', 'La', 'Ni')\",OTHERS,False\nmp-510581,\"{'Pr': 4.0, 'Ni': 4.0, 'Sn': 4.0, 'H': 8.0}\",\"('H', 'Ni', 'Pr', 'Sn')\",OTHERS,False\nmp-1079846,\"{'Th': 3.0, 'Al': 3.0, 'Ir': 3.0}\",\"('Al', 'Ir', 'Th')\",OTHERS,False\nmp-752636,\"{'Li': 4.0, 'Sb': 4.0, 'O': 12.0}\",\"('Li', 'O', 'Sb')\",OTHERS,False\nmp-1201161,\"{'Pr': 16.0, 'As': 4.0, 'Br': 4.0, 'O': 32.0}\",\"('As', 'Br', 'O', 'Pr')\",OTHERS,False\nmp-546790,\"{'O': 2.0, 'Te': 2.0, 'La': 2.0, 'Cu': 2.0}\",\"('Cu', 'La', 'O', 'Te')\",OTHERS,False\nmp-540771,\"{'Ba': 4.0, 'Zr': 4.0, 'S': 12.0}\",\"('Ba', 'S', 'Zr')\",OTHERS,False\nmp-1103880,\"{'Tm': 3.0, 'Ga': 9.0, 'Pt': 2.0}\",\"('Ga', 'Pt', 'Tm')\",OTHERS,False\nmp-1030340,\"{'Te': 6.0, 'Mo': 3.0, 'W': 1.0, 'S': 2.0}\",\"('Mo', 'S', 'Te', 'W')\",OTHERS,False\nmp-1097176,\"{'Sr': 1.0, 'Li': 1.0, 'Tl': 2.0}\",\"('Li', 'Sr', 'Tl')\",OTHERS,False\nmp-30718,\"{'K': 20.0, 'Hg': 28.0}\",\"('Hg', 'K')\",OTHERS,False\nmp-1221880,\"{'Mn': 2.0, 'Cu': 1.0, 'Sb': 2.0, 'Pd': 1.0}\",\"('Cu', 'Mn', 'Pd', 'Sb')\",OTHERS,False\nmp-705479,\"{'Sn': 4.0, 'H': 24.0, 'Cl': 16.0, 'O': 12.0}\",\"('Cl', 'H', 'O', 'Sn')\",OTHERS,False\nmp-1018735,\"{'Ba': 1.0, 'Ti': 2.0, 'As': 2.0, 'O': 1.0}\",\"('As', 'Ba', 'O', 'Ti')\",OTHERS,False\nmp-1195997,\"{'Y': 4.0, 'B': 12.0, 'H': 120.0, 'N': 24.0}\",\"('B', 'H', 'N', 'Y')\",OTHERS,False\nmp-1097659,\"{'Y': 2.0, 'Ga': 1.0, 'Pd': 1.0}\",\"('Ga', 'Pd', 'Y')\",OTHERS,False\nmp-768514,\"{'Li': 9.0, 'Ti': 1.0, 'Mn': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'Mn', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1205964,\"{'Ca': 2.0, 'Fe': 1.0, 'H': 6.0}\",\"('Ca', 'Fe', 'H')\",OTHERS,False\nmp-977584,\"{'Zr': 2.0, 'Zn': 1.0, 'Ag': 2.0, 'F': 14.0}\",\"('Ag', 'F', 'Zn', 'Zr')\",OTHERS,False\nmp-675539,\"{'Na': 7.0, 'Cu': 3.0, 'O': 8.0}\",\"('Cu', 'Na', 'O')\",OTHERS,False\nmp-1114444,\"{'Rb': 2.0, 'Na': 1.0, 'Lu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Lu', 'Na', 'Rb')\",OTHERS,False\nmp-16194,\"{'O': 36.0, 'Si': 12.0, 'Rb': 24.0}\",\"('O', 'Rb', 'Si')\",OTHERS,False\nmp-560091,\"{'Cs': 2.0, 'Zr': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Cs', 'O', 'P', 'Zr')\",OTHERS,False\nmp-559422,\"{'Bi': 32.0, 'Au': 16.0, 'O': 72.0}\",\"('Au', 'Bi', 'O')\",OTHERS,False\nmp-1184411,\"{'Eu': 1.0, 'Mo': 1.0, 'O': 3.0}\",\"('Eu', 'Mo', 'O')\",OTHERS,False\nmp-1105153,\"{'Sr': 4.0, 'Os': 4.0, 'O': 12.0}\",\"('O', 'Os', 'Sr')\",OTHERS,False\nmp-559025,\"{'Ba': 2.0, 'Er': 2.0, 'Ag': 2.0, 'S': 6.0}\",\"('Ag', 'Ba', 'Er', 'S')\",OTHERS,False\nmp-985,\"{'Cu': 1.0, 'Tm': 1.0}\",\"('Cu', 'Tm')\",OTHERS,False\nmp-774791,\"{'Li': 4.0, 'Mn': 3.0, 'Cr': 3.0, 'Te': 2.0, 'O': 16.0}\",\"('Cr', 'Li', 'Mn', 'O', 'Te')\",OTHERS,False\nmp-1076134,\"{'Sr': 12.0, 'Ca': 20.0, 'Ti': 12.0, 'Mn': 20.0, 'O': 80.0}\",\"('Ca', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1190342,\"{'Lu': 10.0, 'Pt': 6.0}\",\"('Lu', 'Pt')\",OTHERS,False\nmp-866101,\"{'Ac': 1.0, 'Cr': 1.0, 'O': 3.0}\",\"('Ac', 'Cr', 'O')\",OTHERS,False\nmp-1193367,\"{'Na': 2.0, 'Ca': 4.0, 'Si': 6.0, 'O': 18.0}\",\"('Ca', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1076247,\"{'Ba': 6.0, 'Sr': 2.0, 'Co': 1.0, 'Cu': 7.0, 'O': 24.0}\",\"('Ba', 'Co', 'Cu', 'O', 'Sr')\",OTHERS,False\nmp-5036,\"{'P': 8.0, 'S': 32.0, 'Er': 8.0}\",\"('Er', 'P', 'S')\",OTHERS,False\nmp-1225500,\"{'Dy': 1.0, 'Ho': 1.0, 'Al': 4.0}\",\"('Al', 'Dy', 'Ho')\",OTHERS,False\nmp-1101457,\"{'Ni': 2.0, 'Bi': 4.0, 'O': 12.0}\",\"('Bi', 'Ni', 'O')\",OTHERS,False\nmp-1229089,\"{'Ag': 1.0, 'Bi': 1.0, 'Se': 1.0, 'S': 1.0}\",\"('Ag', 'Bi', 'S', 'Se')\",OTHERS,False\nmvc-1114,\"{'Ba': 2.0, 'Y': 2.0, 'Ti': 8.0, 'O': 14.0}\",\"('Ba', 'O', 'Ti', 'Y')\",OTHERS,False\nmp-1199390,\"{'Ag': 4.0, 'H': 80.0, 'S': 24.0, 'N': 20.0, 'O': 36.0}\",\"('Ag', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-1598,\"{'Na': 6.0, 'P': 2.0}\",\"('Na', 'P')\",OTHERS,False\nmp-1036503,\"{'Cs': 1.0, 'Mg': 14.0, 'Al': 1.0, 'O': 16.0}\",\"('Al', 'Cs', 'Mg', 'O')\",OTHERS,False\nmp-555629,\"{'Sb': 4.0, 'Te': 4.0, 'Cl': 12.0, 'F': 24.0}\",\"('Cl', 'F', 'Sb', 'Te')\",OTHERS,False\nmp-1076184,\"{'Sr': 8.0, 'Ca': 24.0, 'Mn': 32.0, 'O': 80.0}\",\"('Ca', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1112900,\"{'Cs': 2.0, 'Tl': 1.0, 'Hg': 1.0, 'Br': 6.0}\",\"('Br', 'Cs', 'Hg', 'Tl')\",OTHERS,False\nmp-540079,\"{'Ni': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Ni', 'O', 'P')\",OTHERS,False\nmp-1572,\"{'Ga': 4.0, 'Se': 4.0}\",\"('Ga', 'Se')\",OTHERS,False\nmp-510751,\"{'Cu': 16.0, 'O': 16.0}\",\"('Cu', 'O')\",OTHERS,False\nmp-8925,\"{'Ag': 3.0, 'Te': 2.0, 'Tl': 1.0}\",\"('Ag', 'Te', 'Tl')\",OTHERS,False\nmp-568537,\"{'Yb': 1.0, 'In': 1.0, 'Au': 2.0}\",\"('Au', 'In', 'Yb')\",OTHERS,False\nmp-1183402,\"{'Ba': 2.0, 'Li': 2.0, 'B': 18.0, 'O': 30.0}\",\"('B', 'Ba', 'Li', 'O')\",OTHERS,False\nmp-1894,\"{'C': 1.0, 'W': 1.0}\",\"('C', 'W')\",OTHERS,False\nmp-30006,\"{'N': 8.0, 'O': 24.0, 'Co': 4.0}\",\"('Co', 'N', 'O')\",OTHERS,False\nmp-22978,\"{'Rb': 2.0, 'Mn': 1.0, 'Cl': 4.0}\",\"('Cl', 'Mn', 'Rb')\",OTHERS,False\nmp-1174104,\"{'Li': 5.0, 'Co': 3.0, 'O': 8.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1113426,\"{'Cs': 1.0, 'Rb': 2.0, 'As': 1.0, 'Br': 6.0}\",\"('As', 'Br', 'Cs', 'Rb')\",OTHERS,False\nmp-543019,\"{'Gd': 2.0, 'Ni': 4.0}\",\"('Gd', 'Ni')\",OTHERS,False\nmp-569340,\"{'Rb': 8.0, 'Zn': 4.0, 'N': 48.0}\",\"('N', 'Rb', 'Zn')\",OTHERS,False\nmp-1221426,\"{'Mo': 1.0, 'Ir': 4.0}\",\"('Ir', 'Mo')\",OTHERS,False\nmp-674513,\"{'Dy': 6.0, 'Ta': 2.0, 'O': 14.0}\",\"('Dy', 'O', 'Ta')\",OTHERS,False\nmp-1245567,\"{'Fe': 1.0, 'Co': 2.0, 'N': 2.0}\",\"('Co', 'Fe', 'N')\",OTHERS,False\nmp-571265,\"{'Rb': 4.0, 'U': 2.0, 'Br': 12.0}\",\"('Br', 'Rb', 'U')\",OTHERS,False\nmp-20331,\"{'Cu': 4.0, 'Se': 8.0, 'Sb': 4.0}\",\"('Cu', 'Sb', 'Se')\",OTHERS,False\nmp-1037241,\"{'Y': 1.0, 'Mg': 30.0, 'C': 1.0, 'O': 32.0}\",\"('C', 'Mg', 'O', 'Y')\",OTHERS,False\nmp-1029153,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1219452,\"{'Sc': 2.0, 'Tl': 4.0, 'Mo': 30.0, 'S': 38.0}\",\"('Mo', 'S', 'Sc', 'Tl')\",OTHERS,False\nmp-694855,\"{'Li': 4.0, 'Mo': 2.0, 'O': 6.0}\",\"('Li', 'Mo', 'O')\",OTHERS,False\nmp-21862,\"{'C': 1.0, 'V': 1.0, 'Ru': 3.0}\",\"('C', 'Ru', 'V')\",OTHERS,False\nmp-570009,\"{'Np': 1.0, 'Mn': 2.0, 'Si': 2.0}\",\"('Mn', 'Np', 'Si')\",OTHERS,False\nmp-569894,\"{'La': 4.0, 'B': 4.0, 'Cl': 5.0}\",\"('B', 'Cl', 'La')\",OTHERS,False\nmp-973601,\"{'Hg': 1.0, 'I': 3.0}\",\"('Hg', 'I')\",OTHERS,False\nmp-1112225,\"{'Rb': 2.0, 'In': 1.0, 'Hg': 1.0, 'F': 6.0}\",\"('F', 'Hg', 'In', 'Rb')\",OTHERS,False\nmp-510567,\"{'Ce': 6.0, 'Cu': 2.0, 'Sn': 2.0, 'S': 14.0}\",\"('Ce', 'Cu', 'S', 'Sn')\",OTHERS,False\nmp-758596,\"{'Li': 4.0, 'Fe': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-36484,\"{'V': 16.0, 'Ni': 4.0, 'O': 30.0}\",\"('Ni', 'O', 'V')\",OTHERS,False\nmvc-4401,\"{'Ge': 12.0, 'W': 8.0, 'O': 48.0}\",\"('Ge', 'O', 'W')\",OTHERS,False\nmp-557635,\"{'Sb': 16.0, 'Te': 8.0, 'Se': 8.0, 'F': 80.0}\",\"('F', 'Sb', 'Se', 'Te')\",OTHERS,False\nmp-1222222,\"{'Mn': 4.0, 'Ga': 3.0, 'Co': 8.0, 'Ge': 1.0}\",\"('Co', 'Ga', 'Ge', 'Mn')\",OTHERS,False\nmp-1099847,\"{'Sr': 4.0, 'Ca': 28.0, 'Fe': 4.0, 'Co': 28.0, 'O': 80.0}\",\"('Ca', 'Co', 'Fe', 'O', 'Sr')\",OTHERS,False\nmp-849364,\"{'Li': 4.0, 'Mn': 4.0, 'P': 4.0, 'H': 24.0, 'O': 30.0}\",\"('H', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1229221,\"{'As': 8.0, 'Se': 12.0, 'S': 12.0, 'N': 16.0, 'F': 48.0}\",\"('As', 'F', 'N', 'S', 'Se')\",OTHERS,False\nmp-1218095,\"{'Sr': 1.0, 'Nd': 1.0, 'Ga': 1.0, 'O': 4.0}\",\"('Ga', 'Nd', 'O', 'Sr')\",OTHERS,False\nmp-1025937,\"{'Te': 4.0, 'Mo': 3.0, 'S': 2.0}\",\"('Mo', 'S', 'Te')\",OTHERS,False\nmp-1023939,\"{'Mo': 2.0, 'S': 4.0}\",\"('Mo', 'S')\",OTHERS,False\nmp-1063133,\"{'Ca': 1.0, 'Pd': 2.0}\",\"('Ca', 'Pd')\",OTHERS,False\nmp-568627,\"{'Rb': 8.0, 'Tm': 2.0, 'I': 12.0}\",\"('I', 'Rb', 'Tm')\",OTHERS,False\nmp-769301,\"{'Ca': 16.0, 'Ta': 8.0, 'O': 36.0}\",\"('Ca', 'O', 'Ta')\",OTHERS,False\nmp-1210989,\"{'Li': 12.0, 'Er': 12.0, 'Te': 8.0, 'O': 48.0}\",\"('Er', 'Li', 'O', 'Te')\",OTHERS,False\nmp-642729,\"{'La': 1.0, 'H': 3.0, 'C': 3.0, 'O': 6.0}\",\"('C', 'H', 'La', 'O')\",OTHERS,False\nmp-763252,\"{'Li': 2.0, 'Sb': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Li', 'O', 'Sb', 'W')\",OTHERS,False\nmp-1202794,\"{'Si': 20.0, 'H': 114.0, 'C': 38.0}\",\"('C', 'H', 'Si')\",OTHERS,False\nmp-759168,\"{'Li': 6.0, 'V': 2.0, 'O': 4.0, 'F': 4.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-1198240,\"{'La': 10.0, 'Sn': 20.0, 'Ir': 8.0}\",\"('Ir', 'La', 'Sn')\",OTHERS,False\nmp-1079156,\"{'Ag': 2.0, 'Cl': 2.0, 'O': 4.0}\",\"('Ag', 'Cl', 'O')\",OTHERS,False\nmp-1475,\"{'Be': 12.0, 'Mo': 1.0}\",\"('Be', 'Mo')\",OTHERS,False\nmp-542610,\"{'Mo': 16.0, 'O': 44.0}\",\"('Mo', 'O')\",OTHERS,False\nmp-1195057,\"{'K': 6.0, 'Ba': 6.0, 'Li': 4.0, 'Al': 8.0, 'B': 12.0, 'O': 40.0, 'F': 2.0}\",\"('Al', 'B', 'Ba', 'F', 'K', 'Li', 'O')\",OTHERS,False\nmp-19391,\"{'Na': 1.0, 'V': 1.0, 'O': 2.0}\",\"('Na', 'O', 'V')\",OTHERS,False\nmp-1096653,\"{'Y': 2.0, 'Ag': 1.0, 'Pb': 1.0}\",\"('Ag', 'Pb', 'Y')\",OTHERS,False\nmp-1217891,\"{'Ta': 1.0, 'Ti': 1.0, 'Al': 6.0}\",\"('Al', 'Ta', 'Ti')\",OTHERS,False\nmp-850747,\"{'Li': 4.0, 'Fe': 8.0, 'P': 8.0, 'H': 4.0, 'O': 32.0}\",\"('Fe', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-761592,\"{'Li': 3.0, 'Fe': 2.0, 'Co': 1.0, 'O': 6.0}\",\"('Co', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1174578,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-13452,\"{'Be': 1.0, 'Pd': 2.0}\",\"('Be', 'Pd')\",OTHERS,False\nmp-979273,\"{'Te': 1.0, 'Pd': 3.0}\",\"('Pd', 'Te')\",OTHERS,False\nmp-1180197,\"{'Mo': 2.0, 'O': 10.0}\",\"('Mo', 'O')\",OTHERS,False\nmp-1182486,\"{'Ba': 2.0, 'H': 32.0, 'O': 20.0}\",\"('Ba', 'H', 'O')\",OTHERS,False\nmp-850763,\"{'Li': 4.0, 'Cr': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-961724,\"{'Zr': 1.0, 'Bi': 1.0, 'Rh': 1.0}\",\"('Bi', 'Rh', 'Zr')\",OTHERS,False\nmp-1183367,\"{'Ba': 1.0, 'Eu': 3.0}\",\"('Ba', 'Eu')\",OTHERS,False\nmp-1173098,\"{'Ba': 6.0, 'Ti': 2.0, 'Nb': 10.0, 'Si': 8.0, 'O': 51.0}\",\"('Ba', 'Nb', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-1224687,\"{'Fe': 2.0, 'Cu': 1.0, 'S': 3.0}\",\"('Cu', 'Fe', 'S')\",OTHERS,False\nmp-636253,\"{'Gd': 1.0, 'Cu': 5.0}\",\"('Cu', 'Gd')\",OTHERS,False\nmp-1073122,\"{'Mg': 8.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1211854,\"{'La': 4.0, 'Mo': 4.0, 'O': 20.0}\",\"('La', 'Mo', 'O')\",OTHERS,False\nmp-569603,\"{'Ba': 4.0, 'Ca': 16.0, 'Cu': 8.0, 'N': 16.0}\",\"('Ba', 'Ca', 'Cu', 'N')\",OTHERS,False\nmp-1229286,\"{'Ba': 51.0, 'Pd': 24.0, 'O': 10.0}\",\"('Ba', 'O', 'Pd')\",OTHERS,False\nmp-758291,\"{'Li': 6.0, 'Sn': 6.0, 'P': 8.0, 'O': 32.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1190320,\"{'Al': 12.0, 'Ge': 10.0}\",\"('Al', 'Ge')\",OTHERS,False\nmp-1097596,\"{'Sc': 2.0, 'Zn': 1.0, 'Rh': 1.0}\",\"('Rh', 'Sc', 'Zn')\",OTHERS,False\nmp-630227,{'C': 60.0},\"('C',)\",OTHERS,False\nmp-1111483,\"{'Rb': 2.0, 'Cu': 1.0, 'Pd': 1.0, 'F': 6.0}\",\"('Cu', 'F', 'Pd', 'Rb')\",OTHERS,False\nmp-2484,\"{'Sn': 3.0, 'Sm': 1.0}\",\"('Sm', 'Sn')\",OTHERS,False\nmp-552488,\"{'O': 2.0, 'La': 2.0, 'Cu': 2.0, 'Se': 2.0}\",\"('Cu', 'La', 'O', 'Se')\",OTHERS,False\nmp-7394,\"{'S': 4.0, 'Ge': 1.0, 'Ag': 2.0, 'Ba': 1.0}\",\"('Ag', 'Ba', 'Ge', 'S')\",OTHERS,False\nmp-1017533,\"{'Y': 2.0, 'N': 2.0}\",\"('N', 'Y')\",OTHERS,False\nmp-1227818,\"{'Ba': 1.0, 'Sr': 11.0, 'Al': 4.0, 'O': 16.0, 'F': 4.0}\",\"('Al', 'Ba', 'F', 'O', 'Sr')\",OTHERS,False\nmp-866216,\"{'Ca': 1.0, 'Dy': 1.0, 'Rh': 2.0}\",\"('Ca', 'Dy', 'Rh')\",OTHERS,False\nmp-15237,\"{'C': 10.0, 'Tb': 8.0}\",\"('C', 'Tb')\",OTHERS,False\nmp-985575,\"{'Li': 2.0, 'Ag': 2.0, 'C': 4.0, 'O': 8.0}\",\"('Ag', 'C', 'Li', 'O')\",OTHERS,False\nmp-619775,\"{'Y': 14.0, 'C': 4.0, 'I': 24.0, 'N': 2.0}\",\"('C', 'I', 'N', 'Y')\",OTHERS,False\nmp-1181787,\"{'Fe': 4.0, 'C': 8.0, 'Cl': 4.0, 'O': 18.0}\",\"('C', 'Cl', 'Fe', 'O')\",OTHERS,False\nmp-1247688,\"{'Ca': 8.0, 'Ti': 2.0, 'Mn': 6.0, 'O': 22.0}\",\"('Ca', 'Mn', 'O', 'Ti')\",OTHERS,False\nmvc-10123,\"{'Ho': 2.0, 'Zn': 2.0, 'Mo': 4.0, 'O': 12.0}\",\"('Ho', 'Mo', 'O', 'Zn')\",OTHERS,False\nmp-1202829,\"{'Ba': 8.0, 'Ga': 4.0, 'Bi': 4.0, 'Te': 20.0}\",\"('Ba', 'Bi', 'Ga', 'Te')\",OTHERS,False\nmp-1185600,\"{'Mg': 149.0, 'Os': 1.0}\",\"('Mg', 'Os')\",OTHERS,False\nmp-985594,\"{'Na': 2.0, 'Ag': 2.0, 'C': 4.0, 'O': 8.0}\",\"('Ag', 'C', 'Na', 'O')\",OTHERS,False\nmp-776355,\"{'Li': 1.0, 'V': 6.0, 'O': 7.0, 'F': 5.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-985540,\"{'Ac': 6.0, 'La': 2.0}\",\"('Ac', 'La')\",OTHERS,False\nmp-768377,\"{'Fe': 3.0, 'Cu': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Cu', 'Fe', 'O', 'P')\",OTHERS,False\nmp-756230,\"{'Mn': 2.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('H', 'Mn', 'O', 'P')\",OTHERS,False\nmp-776335,\"{'Zr': 16.0, 'N': 16.0, 'O': 8.0}\",\"('N', 'O', 'Zr')\",OTHERS,False\nmp-1111497,\"{'K': 3.0, 'Bi': 1.0, 'Cl': 6.0}\",\"('Bi', 'Cl', 'K')\",OTHERS,False\nmp-1211590,\"{'La': 5.0, 'Mg': 41.0}\",\"('La', 'Mg')\",OTHERS,False\nmp-755480,\"{'K': 2.0, 'Rb': 2.0, 'O': 2.0}\",\"('K', 'O', 'Rb')\",OTHERS,False\nmp-639496,\"{'Eu': 2.0, 'In': 4.0, 'Au': 2.0}\",\"('Au', 'Eu', 'In')\",OTHERS,False\nmp-28606,\"{'K': 6.0, 'Se': 26.0, 'Au': 2.0}\",\"('Au', 'K', 'Se')\",OTHERS,False\nmp-17673,\"{'Lu': 12.0, 'O': 8.0, 'F': 20.0}\",\"('F', 'Lu', 'O')\",OTHERS,False\nmp-1223171,\"{'Li': 19.0, 'V': 12.0, 'O': 32.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1100171,\"{'Cs': 1.0, 'Mg': 6.0, 'Mo': 1.0}\",\"('Cs', 'Mg', 'Mo')\",OTHERS,False\nmp-22211,\"{'V': 6.0, 'Sn': 2.0}\",\"('Sn', 'V')\",OTHERS,False\nmp-1096622,\"{'Li': 2.0, 'Ca': 1.0, 'Al': 1.0}\",\"('Al', 'Ca', 'Li')\",OTHERS,False\nmp-773466,\"{'Na': 4.0, 'Cu': 12.0, 'O': 16.0}\",\"('Cu', 'Na', 'O')\",OTHERS,False\nmvc-10947,\"{'Al': 2.0, 'Fe': 4.0, 'O': 8.0}\",\"('Al', 'Fe', 'O')\",OTHERS,False\nmp-530048,\"{'Fe': 21.0, 'O': 32.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-1236246,\"{'Li': 1.0, 'Ti': 1.0, 'O': 2.0}\",\"('Li', 'O', 'Ti')\",OTHERS,False\nmp-772237,\"{'Na': 2.0, 'Li': 10.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'Na', 'O', 'P')\",OTHERS,False\nmp-23745,\"{'H': 16.0, 'N': 4.0, 'O': 8.0, 'Se': 2.0}\",\"('H', 'N', 'O', 'Se')\",OTHERS,False\nmp-769502,\"{'Li': 4.0, 'Nb': 2.0, 'Fe': 3.0, 'O': 10.0}\",\"('Fe', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-1187598,\"{'Tm': 2.0, 'Mg': 1.0, 'Cd': 1.0}\",\"('Cd', 'Mg', 'Tm')\",OTHERS,False\nmp-19,{'Te': 3.0},\"('Te',)\",OTHERS,False\nmp-40685,\"{'Na': 2.0, 'O': 28.0, 'Sb': 4.0, 'Sm': 6.0, 'Ti': 4.0}\",\"('Na', 'O', 'Sb', 'Sm', 'Ti')\",OTHERS,False\nmp-1196623,\"{'Cu': 6.0, 'Ag': 4.0, 'Bi': 14.0, 'Pb': 6.0, 'S': 32.0}\",\"('Ag', 'Bi', 'Cu', 'Pb', 'S')\",OTHERS,False\nmvc-9221,\"{'Mg': 4.0, 'Fe': 4.0, 'Bi': 4.0, 'O': 20.0}\",\"('Bi', 'Fe', 'Mg', 'O')\",OTHERS,False\nmp-6067,\"{'O': 48.0, 'S': 12.0, 'Cd': 8.0, 'Tl': 8.0}\",\"('Cd', 'O', 'S', 'Tl')\",OTHERS,False\nmp-1180390,\"{'Mg': 4.0, 'Te': 4.0, 'I': 24.0, 'O': 24.0}\",\"('I', 'Mg', 'O', 'Te')\",OTHERS,False\nmp-1217196,\"{'Ti': 5.0, 'Mn': 1.0, 'S': 10.0}\",\"('Mn', 'S', 'Ti')\",OTHERS,False\nmp-581868,\"{'Na': 4.0, 'Y': 4.0, 'I': 16.0, 'O': 48.0}\",\"('I', 'Na', 'O', 'Y')\",OTHERS,False\nmp-1205022,\"{'Cs': 16.0, 'Te': 112.0}\",\"('Cs', 'Te')\",OTHERS,False\nmp-1226853,\"{'Ce': 5.0, 'Bi': 1.0, 'Sb': 4.0}\",\"('Bi', 'Ce', 'Sb')\",OTHERS,False\nmp-542459,\"{'Ba': 4.0, 'Ge': 8.0, 'Ga': 8.0, 'O': 32.0}\",\"('Ba', 'Ga', 'Ge', 'O')\",OTHERS,False\nmp-849731,\"{'Li': 1.0, 'Ti': 1.0, 'V': 2.0, 'O': 6.0}\",\"('Li', 'O', 'Ti', 'V')\",OTHERS,False\nmp-504149,\"{'Fe': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-1187702,\"{'V': 1.0, 'W': 3.0}\",\"('V', 'W')\",OTHERS,False\nmp-556046,\"{'Sr': 2.0, 'Ga': 4.0, 'B': 4.0, 'O': 14.0}\",\"('B', 'Ga', 'O', 'Sr')\",OTHERS,False\nmp-1222250,\"{'Mg': 4.0, 'Al': 2.0, 'H': 12.0, 'C': 1.0, 'O': 18.0}\",\"('Al', 'C', 'H', 'Mg', 'O')\",OTHERS,False\nmvc-10619,\"{'V': 6.0, 'P': 6.0, 'O': 26.0}\",\"('O', 'P', 'V')\",OTHERS,False\nmp-22765,\"{'Si': 6.0, 'Pd': 2.0, 'Eu': 4.0}\",\"('Eu', 'Pd', 'Si')\",OTHERS,False\nmp-1009746,\"{'Sc': 1.0, 'P': 1.0}\",\"('P', 'Sc')\",OTHERS,False\nmp-546810,\"{'O': 4.0, 'C': 4.0, 'Rb': 2.0}\",\"('C', 'O', 'Rb')\",OTHERS,False\nmp-685544,\"{'Ga': 24.0, 'Cu': 12.0, 'O': 48.0}\",\"('Cu', 'Ga', 'O')\",OTHERS,False\nmp-28168,\"{'C': 2.0, 'Br': 28.0, 'Th': 12.0}\",\"('Br', 'C', 'Th')\",OTHERS,False\nmp-1226584,\"{'Ce': 1.0, 'Si': 1.0, 'B': 1.0, 'Rh': 3.0}\",\"('B', 'Ce', 'Rh', 'Si')\",OTHERS,False\nmp-1246633,\"{'Mg': 2.0, 'V': 2.0, 'Ga': 2.0, 'S': 8.0}\",\"('Ga', 'Mg', 'S', 'V')\",OTHERS,False\nmp-1178260,\"{'Fe': 10.0, 'O': 14.0, 'F': 6.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmvc-3347,\"{'Mg': 4.0, 'Cr': 4.0, 'O': 8.0}\",\"('Cr', 'Mg', 'O')\",OTHERS,False\nmp-1029730,\"{'Ca': 8.0, 'Hf': 2.0, 'N': 8.0}\",\"('Ca', 'Hf', 'N')\",OTHERS,False\nmp-1032466,\"{'Sr': 1.0, 'Mg': 6.0, 'Mn': 1.0, 'O': 8.0}\",\"('Mg', 'Mn', 'O', 'Sr')\",OTHERS,False\nmvc-7046,\"{'Si': 16.0, 'Mo': 8.0, 'O': 48.0}\",\"('Mo', 'O', 'Si')\",OTHERS,False\nmp-1245175,\"{'Ta': 50.0, 'N': 50.0}\",\"('N', 'Ta')\",OTHERS,False\nmp-755110,\"{'Cs': 4.0, 'Mn': 2.0, 'O': 8.0}\",\"('Cs', 'Mn', 'O')\",OTHERS,False\nmp-1036013,\"{'Y': 1.0, 'Mg': 14.0, 'Cu': 1.0, 'O': 16.0}\",\"('Cu', 'Mg', 'O', 'Y')\",OTHERS,False\nmp-1200491,\"{'K': 8.0, 'Al': 8.0, 'P': 8.0, 'O': 40.0}\",\"('Al', 'K', 'O', 'P')\",OTHERS,False\nmp-9596,\"{'B': 8.0, 'La': 2.0, 'Ir': 8.0}\",\"('B', 'Ir', 'La')\",OTHERS,False\nmp-865779,\"{'Ga': 2.0, 'Co': 1.0, 'Ru': 1.0}\",\"('Co', 'Ga', 'Ru')\",OTHERS,False\nmp-1032523,\"{'Mg': 6.0, 'Fe': 1.0, 'Si': 1.0, 'O': 8.0}\",\"('Fe', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1216131,\"{'Y': 2.0, 'O': 3.0, 'F': 3.0}\",\"('F', 'O', 'Y')\",OTHERS,False\nmp-1747,\"{'K': 2.0, 'Te': 1.0}\",\"('K', 'Te')\",OTHERS,False\nmp-1214225,\"{'C': 16.0, 'S': 24.0, 'I': 8.0}\",\"('C', 'I', 'S')\",OTHERS,False\nmp-1246689,\"{'Mg': 2.0, 'Ga': 2.0, 'Mo': 2.0, 'S': 8.0}\",\"('Ga', 'Mg', 'Mo', 'S')\",OTHERS,False\nmp-637263,\"{'Zr': 10.0, 'Al': 2.0, 'Ni': 8.0}\",\"('Al', 'Ni', 'Zr')\",OTHERS,False\nmp-1191489,\"{'Ca': 2.0, 'Al': 4.0, 'O': 8.0, 'F': 8.0}\",\"('Al', 'Ca', 'F', 'O')\",OTHERS,False\nmp-757982,\"{'In': 4.0, 'H': 12.0, 'O': 12.0}\",\"('H', 'In', 'O')\",OTHERS,False\nmp-765894,\"{'Li': 5.0, 'V': 1.0, 'F': 8.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-541221,\"{'Ba': 6.0, 'N': 12.0, 'O': 30.0, 'H': 12.0}\",\"('Ba', 'H', 'N', 'O')\",OTHERS,False\nmp-2723,\"{'O': 4.0, 'Ir': 2.0}\",\"('Ir', 'O')\",OTHERS,False\nmp-562631,\"{'K': 4.0, 'S': 2.0, 'O': 8.0}\",\"('K', 'O', 'S')\",OTHERS,False\nmp-1111490,\"{'K': 3.0, 'In': 1.0, 'Br': 6.0}\",\"('Br', 'In', 'K')\",OTHERS,False\nmp-571350,\"{'Ba': 2.0, 'As': 4.0, 'Pd': 4.0}\",\"('As', 'Ba', 'Pd')\",OTHERS,False\nmp-1184672,\"{'Hf': 2.0, 'Ti': 6.0}\",\"('Hf', 'Ti')\",OTHERS,False\nmp-632692,\"{'Li': 1.0, 'Fe': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1205470,\"{'Ca': 4.0, 'Hg': 4.0, 'H': 64.0, 'Br': 16.0, 'O': 32.0}\",\"('Br', 'Ca', 'H', 'Hg', 'O')\",OTHERS,False\nmp-41742,\"{'Ca': 2.0, 'Nd': 2.0, 'Ti': 2.0, 'Mn': 2.0, 'O': 12.0}\",\"('Ca', 'Mn', 'Nd', 'O', 'Ti')\",OTHERS,False\nmp-1818,\"{'F': 4.0, 'Si': 1.0}\",\"('F', 'Si')\",OTHERS,False\nmp-2075,\"{'N': 8.0, 'Si': 6.0}\",\"('N', 'Si')\",OTHERS,False\nmp-18649,\"{'Mn': 6.0, 'Ge': 6.0, 'Rh': 6.0}\",\"('Ge', 'Mn', 'Rh')\",OTHERS,False\nmp-1079867,\"{'Li': 4.0, 'Pr': 2.0, 'Ge': 2.0}\",\"('Ge', 'Li', 'Pr')\",OTHERS,False\nmp-30564,\"{'Co': 2.0, 'Th': 2.0}\",\"('Co', 'Th')\",OTHERS,False\nmp-1219972,\"{'Pr': 2.0, 'Ga': 2.0, 'Si': 2.0}\",\"('Ga', 'Pr', 'Si')\",OTHERS,False\nmp-753276,\"{'Li': 2.0, 'Co': 1.0, 'Ni': 1.0, 'O': 4.0}\",\"('Co', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-23201,\"{'Ba': 1.0, 'Bi': 3.0}\",\"('Ba', 'Bi')\",OTHERS,False\nmp-569935,\"{'La': 3.0, 'B': 2.0, 'N': 4.0}\",\"('B', 'La', 'N')\",OTHERS,False\nmp-504732,\"{'Mn': 12.0, 'Ti': 12.0, 'O': 4.0}\",\"('Mn', 'O', 'Ti')\",OTHERS,False\nmp-1076782,\"{'Ba': 1.0, 'Co': 1.0, 'O': 3.0}\",\"('Ba', 'Co', 'O')\",OTHERS,False\nmp-757068,\"{'Li': 4.0, 'Cr': 1.0, 'Ni': 3.0, 'P': 4.0, 'O': 16.0}\",\"('Cr', 'Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-770610,\"{'Li': 8.0, 'Al': 4.0, 'Co': 4.0, 'O': 16.0}\",\"('Al', 'Co', 'Li', 'O')\",OTHERS,False\nmp-1263325,\"{'Al': 1.0, 'Ni': 1.0, 'F': 5.0}\",\"('Al', 'F', 'Ni')\",OTHERS,False\nmp-698018,\"{'Li': 2.0, 'Al': 2.0, 'Si': 4.0, 'H': 4.0, 'O': 14.0}\",\"('Al', 'H', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1216900,\"{'Tl': 1.0, 'V': 2.0, 'Cr': 3.0, 'S': 8.0}\",\"('Cr', 'S', 'Tl', 'V')\",OTHERS,False\nmp-760794,\"{'Li': 8.0, 'V': 8.0, 'F': 32.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1229173,\"{'Ba': 12.0, 'Sm': 4.0, 'Al': 3.0, 'Co': 5.0, 'O': 30.0}\",\"('Al', 'Ba', 'Co', 'O', 'Sm')\",OTHERS,False\nmp-1221360,\"{'Na': 2.0, 'Nb': 2.0, 'W': 2.0, 'O': 13.0}\",\"('Na', 'Nb', 'O', 'W')\",OTHERS,False\nmp-756651,\"{'Li': 6.0, 'Mn': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1217172,\"{'Ti': 5.0, 'S': 8.0}\",\"('S', 'Ti')\",OTHERS,False\nmp-1228335,\"{'Ba': 4.0, 'Ti': 1.0, 'Al': 3.0, 'P': 4.0, 'O': 20.0, 'F': 4.0}\",\"('Al', 'Ba', 'F', 'O', 'P', 'Ti')\",OTHERS,False\nmp-12570,\"{'Th': 1.0, 'B': 12.0}\",\"('B', 'Th')\",OTHERS,False\nmp-1086668,\"{'La': 2.0, 'Sn': 4.0, 'Rh': 2.0}\",\"('La', 'Rh', 'Sn')\",OTHERS,False\nmp-1244593,\"{'Ca': 2.0, 'Ti': 2.0, 'Bi': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Bi', 'Ca', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1211455,\"{'K': 2.0, 'Gd': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Gd', 'K', 'Mo', 'O')\",OTHERS,False\nmp-1209439,\"{'Rb': 8.0, 'Ta': 6.0, 'O': 19.0}\",\"('O', 'Rb', 'Ta')\",OTHERS,False\nmp-1034435,\"{'Ba': 1.0, 'Mg': 14.0, 'Cr': 1.0, 'O': 16.0}\",\"('Ba', 'Cr', 'Mg', 'O')\",OTHERS,False\nmp-644841,\"{'K': 8.0, 'Pd': 4.0, 'N': 16.0, 'O': 32.0}\",\"('K', 'N', 'O', 'Pd')\",OTHERS,False\nmp-1228840,\"{'Al': 1.0, 'V': 1.0, 'Ni': 2.0}\",\"('Al', 'Ni', 'V')\",OTHERS,False\nmp-20024,\"{'Cu': 2.0, 'Sn': 2.0, 'La': 2.0}\",\"('Cu', 'La', 'Sn')\",OTHERS,False\nmp-707897,\"{'Ca': 4.0, 'Al': 2.0, 'H': 22.0, 'C': 1.0, 'O': 20.0}\",\"('Al', 'C', 'Ca', 'H', 'O')\",OTHERS,False\nmp-1221811,\"{'Mn': 3.0, 'Ni': 1.0, 'O': 4.0}\",\"('Mn', 'Ni', 'O')\",OTHERS,False\nmp-776476,\"{'Cd': 4.0, 'Fe': 4.0, 'O': 12.0}\",\"('Cd', 'Fe', 'O')\",OTHERS,False\nmp-1192549,\"{'Ba': 4.0, 'U': 2.0, 'Cu': 8.0, 'Se': 12.0}\",\"('Ba', 'Cu', 'Se', 'U')\",OTHERS,False\nmp-14324,\"{'Be': 4.0, 'O': 10.0, 'Na': 8.0, 'K': 4.0}\",\"('Be', 'K', 'Na', 'O')\",OTHERS,False\nmp-1218002,\"{'Ta': 2.0, 'Mo': 1.0, 'S': 6.0}\",\"('Mo', 'S', 'Ta')\",OTHERS,False\nmp-561500,\"{'Cs': 4.0, 'Na': 2.0, 'V': 2.0, 'F': 12.0}\",\"('Cs', 'F', 'Na', 'V')\",OTHERS,False\nmp-530214,\"{'Fe': 16.0, 'Ni': 8.0, 'O': 32.0}\",\"('Fe', 'Ni', 'O')\",OTHERS,False\nmp-1224887,\"{'Fe': 6.0, 'Ni': 6.0, 'B': 4.0}\",\"('B', 'Fe', 'Ni')\",OTHERS,False\nmp-643378,\"{'Cu': 1.0, 'H': 4.0, 'Pb': 2.0, 'Cl': 2.0, 'O': 4.0}\",\"('Cl', 'Cu', 'H', 'O', 'Pb')\",OTHERS,False\nmp-1185057,\"{'K': 3.0, 'Yb': 1.0}\",\"('K', 'Yb')\",OTHERS,False\nmp-698602,\"{'Sr': 5.0, 'La': 5.0, 'Mn': 9.0, 'Cu': 1.0, 'O': 30.0}\",\"('Cu', 'La', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1095643,\"{'Nb': 4.0, 'Cr': 8.0}\",\"('Cr', 'Nb')\",OTHERS,False\nmp-586092,\"{'Li': 12.0, 'Fe': 20.0, 'O': 32.0}\",\"('Fe', 'Li', 'O')\",OTHERS,False\nmp-760397,\"{'Li': 1.0, 'Co': 1.0, 'Cu': 1.0, 'O': 4.0}\",\"('Co', 'Cu', 'Li', 'O')\",OTHERS,False\nmp-1104271,\"{'Ag': 6.0, 'Sb': 2.0, 'S': 6.0}\",\"('Ag', 'S', 'Sb')\",OTHERS,False\nmp-866192,\"{'Yb': 1.0, 'Li': 2.0, 'Sn': 1.0}\",\"('Li', 'Sn', 'Yb')\",OTHERS,False\nmp-1105780,\"{'Bi': 8.0, 'O': 12.0}\",\"('Bi', 'O')\",OTHERS,False\nmp-26944,\"{'O': 20.0, 'P': 6.0, 'Sn': 4.0}\",\"('O', 'P', 'Sn')\",OTHERS,False\nmp-753438,\"{'Li': 8.0, 'V': 4.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-554272,\"{'Cu': 24.0, 'Sb': 8.0, 'S': 24.0}\",\"('Cu', 'S', 'Sb')\",OTHERS,False\nmp-1103730,\"{'Na': 4.0, 'Mg': 1.0, 'Ge': 2.0, 'Se': 6.0}\",\"('Ge', 'Mg', 'Na', 'Se')\",OTHERS,False\nmp-15889,\"{'O': 12.0, 'Ba': 4.0, 'La': 2.0, 'Ir': 2.0}\",\"('Ba', 'Ir', 'La', 'O')\",OTHERS,False\nmp-1209233,\"{'Sc': 22.0, 'Ga': 20.0}\",\"('Ga', 'Sc')\",OTHERS,False\nmp-1214747,\"{'Ba': 2.0, 'Ca': 2.0, 'Nd': 1.0, 'Ti': 2.0, 'Cu': 2.0, 'O': 12.0}\",\"('Ba', 'Ca', 'Cu', 'Nd', 'O', 'Ti')\",OTHERS,False\nmp-17968,\"{'O': 24.0, 'Na': 4.0, 'Ca': 2.0, 'V': 8.0}\",\"('Ca', 'Na', 'O', 'V')\",OTHERS,False\nmp-3928,\"{'O': 20.0, 'Na': 10.0, 'P': 6.0}\",\"('Na', 'O', 'P')\",OTHERS,False\nmp-559826,\"{'Er': 4.0, 'Cu': 4.0, 'S': 8.0}\",\"('Cu', 'Er', 'S')\",OTHERS,False\nmp-772060,\"{'Li': 3.0, 'Nb': 1.0, 'Fe': 3.0, 'O': 8.0}\",\"('Fe', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-644278,\"{'Y': 2.0, 'H': 2.0, 'C': 1.0}\",\"('C', 'H', 'Y')\",OTHERS,False\nmp-1186783,\"{'Pt': 3.0, 'Cl': 1.0}\",\"('Cl', 'Pt')\",OTHERS,False\nmp-762271,\"{'Li': 2.0, 'V': 3.0, 'O': 6.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1097261,\"{'Y': 1.0, 'Hf': 1.0, 'Rh': 2.0}\",\"('Hf', 'Rh', 'Y')\",OTHERS,False\nmp-1213717,\"{'Cs': 8.0, 'Sb': 4.0, 'F': 20.0}\",\"('Cs', 'F', 'Sb')\",OTHERS,False\nmp-622258,\"{'Rb': 4.0, 'V': 8.0, 'Sb': 4.0, 'O': 32.0}\",\"('O', 'Rb', 'Sb', 'V')\",OTHERS,False\nmp-555387,\"{'Ba': 4.0, 'Si': 8.0, 'B': 8.0, 'O': 32.0}\",\"('B', 'Ba', 'O', 'Si')\",OTHERS,False\nmp-554084,\"{'Ba': 1.0, 'Bi': 6.0, 'P': 4.0, 'O': 20.0}\",\"('Ba', 'Bi', 'O', 'P')\",OTHERS,False\nmp-771949,\"{'Ti': 1.0, 'Mn': 3.0, 'P': 4.0, 'O': 16.0}\",\"('Mn', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1112417,\"{'K': 2.0, 'Ta': 1.0, 'Au': 1.0, 'F': 6.0}\",\"('Au', 'F', 'K', 'Ta')\",OTHERS,False\nmp-5400,\"{'Si': 2.0, 'Cr': 2.0, 'Th': 1.0}\",\"('Cr', 'Si', 'Th')\",OTHERS,False\nmp-756644,\"{'Li': 8.0, 'Fe': 7.0, 'O': 15.0}\",\"('Fe', 'Li', 'O')\",OTHERS,False\nmp-1223910,\"{'Ho': 2.0, 'Co': 2.0, 'Ni': 2.0}\",\"('Co', 'Ho', 'Ni')\",OTHERS,False\nmp-1188063,\"{'Yb': 3.0, 'Ce': 1.0}\",\"('Ce', 'Yb')\",OTHERS,False\nmp-4533,\"{'O': 6.0, 'Na': 4.0, 'Si': 2.0}\",\"('Na', 'O', 'Si')\",OTHERS,False\nmp-621981,\"{'Tl': 8.0, 'Ag': 8.0, 'C': 16.0, 'N': 16.0}\",\"('Ag', 'C', 'N', 'Tl')\",OTHERS,False\nmp-559985,\"{'Ca': 4.0, 'P': 16.0, 'O': 44.0}\",\"('Ca', 'O', 'P')\",OTHERS,False\nmp-1206259,\"{'Tm': 3.0, 'Mg': 3.0, 'Au': 3.0}\",\"('Au', 'Mg', 'Tm')\",OTHERS,False\nmp-1033791,\"{'Mg': 14.0, 'Cr': 1.0, 'C': 1.0, 'O': 16.0}\",\"('C', 'Cr', 'Mg', 'O')\",OTHERS,False\nmp-12962,\"{'Fe': 1.0, 'Zr': 6.0, 'Sb': 2.0}\",\"('Fe', 'Sb', 'Zr')\",OTHERS,False\nmp-27659,\"{'Pu': 1.0, 'Pt': 4.0}\",\"('Pt', 'Pu')\",OTHERS,False\nmp-976972,\"{'Ho': 1.0, 'Tm': 1.0, 'Cu': 2.0}\",\"('Cu', 'Ho', 'Tm')\",OTHERS,False\nmp-1175361,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-865258,\"{'Tb': 1.0, 'Yb': 1.0, 'Rh': 2.0}\",\"('Rh', 'Tb', 'Yb')\",OTHERS,False\nmp-12664,\"{'Be': 12.0, 'Au': 1.0}\",\"('Au', 'Be')\",OTHERS,False\nmp-1077045,\"{'Ti': 4.0, 'H': 2.0}\",\"('H', 'Ti')\",OTHERS,False\nmp-1217848,\"{'Tb': 2.0, 'Cu': 6.0, 'S': 6.0}\",\"('Cu', 'S', 'Tb')\",OTHERS,False\nmp-1078823,\"{'Cs': 2.0, 'Zr': 1.0, 'Ag': 2.0, 'Te': 4.0}\",\"('Ag', 'Cs', 'Te', 'Zr')\",OTHERS,False\nmp-977372,\"{'Pm': 2.0, 'Sn': 1.0, 'Hg': 1.0}\",\"('Hg', 'Pm', 'Sn')\",OTHERS,False\nmp-1189442,\"{'Tm': 12.0, 'Pt': 4.0}\",\"('Pt', 'Tm')\",OTHERS,False\nmp-13771,\"{'O': 48.0, 'Sc': 8.0, 'Ge': 12.0, 'Cd': 12.0}\",\"('Cd', 'Ge', 'O', 'Sc')\",OTHERS,False\nmp-1104709,\"{'Sm': 1.0, 'Mn': 6.0, 'Sn': 6.0}\",\"('Mn', 'Sm', 'Sn')\",OTHERS,False\nmp-1111060,\"{'K': 1.0, 'Na': 2.0, 'Al': 1.0, 'F': 6.0}\",\"('Al', 'F', 'K', 'Na')\",OTHERS,False\nmp-560464,\"{'U': 4.0, 'Tl': 8.0, 'Te': 8.0, 'O': 32.0}\",\"('O', 'Te', 'Tl', 'U')\",OTHERS,False\nmp-1077866,\"{'Ba': 1.0, 'Zn': 1.0, 'B': 1.0, 'O': 3.0, 'F': 1.0}\",\"('B', 'Ba', 'F', 'O', 'Zn')\",OTHERS,False\nmp-990091,\"{'Ag': 8.0, 'W': 4.0, 'S': 16.0}\",\"('Ag', 'S', 'W')\",OTHERS,False\nmp-978096,\"{'Pu': 3.0, 'Au': 1.0}\",\"('Au', 'Pu')\",OTHERS,False\nmp-647867,\"{'La': 16.0, 'Mo': 28.0, 'O': 108.0}\",\"('La', 'Mo', 'O')\",OTHERS,False\nmp-1218971,\"{'Sm': 1.0, 'Th': 1.0, 'N': 2.0}\",\"('N', 'Sm', 'Th')\",OTHERS,False\nmp-30774,\"{'Mg': 1.0, 'Ni': 2.0, 'Sn': 1.0}\",\"('Mg', 'Ni', 'Sn')\",OTHERS,False\nmp-15359,\"{'B': 4.0, 'O': 12.0, 'Al': 3.0, 'Gd': 1.0}\",\"('Al', 'B', 'Gd', 'O')\",OTHERS,False\nmp-773158,\"{'Li': 12.0, 'Fe': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-600032,\"{'Si': 48.0, 'O': 96.0}\",\"('O', 'Si')\",OTHERS,False\nmp-541628,\"{'Cs': 4.0, 'Te': 4.0, 'F': 20.0}\",\"('Cs', 'F', 'Te')\",OTHERS,False\nmp-753795,\"{'Li': 12.0, 'Bi': 4.0, 'O': 12.0}\",\"('Bi', 'Li', 'O')\",OTHERS,False\nmp-1073575,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-685196,\"{'Tl': 4.0, 'Ag': 32.0, 'Te': 22.0}\",\"('Ag', 'Te', 'Tl')\",OTHERS,False\nmp-1078889,\"{'La': 2.0, 'As': 4.0, 'Ir': 4.0}\",\"('As', 'Ir', 'La')\",OTHERS,False\nmp-1177019,\"{'Li': 7.0, 'Fe': 1.0, 'Ni': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-774797,\"{'Li': 8.0, 'Ti': 12.0, 'Zn': 4.0, 'O': 32.0}\",\"('Li', 'O', 'Ti', 'Zn')\",OTHERS,False\nmp-1227409,\"{'Bi': 1.0, 'As': 1.0, 'Pd': 6.0}\",\"('As', 'Bi', 'Pd')\",OTHERS,False\nmp-1008631,\"{'V': 1.0, 'Co': 1.0, 'Te': 1.0}\",\"('Co', 'Te', 'V')\",OTHERS,False\nmp-1114589,\"{'Eu': 1.0, 'Rb': 2.0, 'Na': 1.0, 'Cl': 6.0}\",\"('Cl', 'Eu', 'Na', 'Rb')\",OTHERS,False\nmp-1095431,\"{'Yb': 4.0, 'Ga': 4.0, 'Ni': 4.0}\",\"('Ga', 'Ni', 'Yb')\",OTHERS,False\nmp-1246312,\"{'Hf': 4.0, 'Cr': 4.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cr', 'Cu', 'Hf', 'S')\",OTHERS,False\nmp-17092,\"{'Sc': 6.0, 'Pd': 6.0, 'Sn': 6.0}\",\"('Pd', 'Sc', 'Sn')\",OTHERS,False\nmp-1211829,\"{'K': 2.0, 'Ce': 2.0, 'S': 4.0, 'O': 16.0}\",\"('Ce', 'K', 'O', 'S')\",OTHERS,False\nmp-1226015,\"{'Co': 2.0, 'Ni': 2.0, 'Ge': 2.0}\",\"('Co', 'Ge', 'Ni')\",OTHERS,False\nmp-1112922,\"{'Cs': 2.0, 'Sb': 1.0, 'Au': 1.0, 'I': 6.0}\",\"('Au', 'Cs', 'I', 'Sb')\",OTHERS,False\nmp-1184372,\"{'Eu': 2.0, 'Sb': 1.0, 'Au': 1.0}\",\"('Au', 'Eu', 'Sb')\",OTHERS,False\nmp-866009,\"{'Dy': 1.0, 'Zr': 1.0, 'Ru': 2.0}\",\"('Dy', 'Ru', 'Zr')\",OTHERS,False\nmp-1202819,\"{'Sr': 8.0, 'B': 20.0, 'H': 4.0, 'O': 40.0}\",\"('B', 'H', 'O', 'Sr')\",OTHERS,False\nmp-776264,\"{'Li': 2.0, 'Fe': 2.0, 'F': 8.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-755520,\"{'Na': 1.0, 'Mn': 1.0, 'O': 2.0}\",\"('Mn', 'Na', 'O')\",OTHERS,False\nmp-2041,\"{'Zn': 4.0, 'Ho': 2.0}\",\"('Ho', 'Zn')\",OTHERS,False\nmp-866106,\"{'Ba': 2.0, 'Hg': 1.0, 'Pb': 1.0}\",\"('Ba', 'Hg', 'Pb')\",OTHERS,False\nmp-1094098,\"{'Na': 2.0, 'Ga': 2.0, 'Te': 4.0}\",\"('Ga', 'Na', 'Te')\",OTHERS,False\nmp-865141,\"{'Lu': 4.0, 'Ni': 13.0, 'C': 4.0}\",\"('C', 'Lu', 'Ni')\",OTHERS,False\nmp-1196551,\"{'Rb': 7.0, 'Sm': 1.0, 'Fe': 6.0, 'P': 8.0, 'O': 34.0}\",\"('Fe', 'O', 'P', 'Rb', 'Sm')\",OTHERS,False\nmp-8678,\"{'O': 8.0, 'F': 2.0, 'Na': 2.0, 'Al': 2.0, 'P': 2.0}\",\"('Al', 'F', 'Na', 'O', 'P')\",OTHERS,False\nmp-12160,\"{'Li': 24.0, 'B': 12.0, 'O': 36.0, 'Ho': 4.0}\",\"('B', 'Ho', 'Li', 'O')\",OTHERS,False\nmp-33333,\"{'Na': 2.0, 'Sb': 2.0, 'Se': 4.0}\",\"('Na', 'Sb', 'Se')\",OTHERS,False\nmp-555319,\"{'Rb': 12.0, 'Ti': 12.0, 'P': 20.0, 'O': 80.0}\",\"('O', 'P', 'Rb', 'Ti')\",OTHERS,False\nmp-4473,\"{'Cu': 8.0, 'Se': 8.0, 'Ba': 4.0}\",\"('Ba', 'Cu', 'Se')\",OTHERS,False\nmp-1232136,\"{'Pr': 4.0, 'Mg': 4.0, 'Se': 12.0}\",\"('Mg', 'Pr', 'Se')\",OTHERS,False\nmp-9947,\"{'C': 7.0, 'Si': 7.0}\",\"('C', 'Si')\",OTHERS,False\nmp-760113,\"{'Li': 8.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1208544,\"{'Tb': 8.0, 'Si': 16.0, 'C': 4.0, 'N': 24.0}\",\"('C', 'N', 'Si', 'Tb')\",OTHERS,False\nmp-18622,\"{'P': 8.0, 'Hf': 14.0}\",\"('Hf', 'P')\",OTHERS,False\nmp-19187,\"{'O': 14.0, 'Na': 2.0, 'P': 4.0, 'Co': 1.0, 'Zr': 1.0}\",\"('Co', 'Na', 'O', 'P', 'Zr')\",OTHERS,False\nmp-1206826,\"{'La': 4.0, 'Si': 1.0, 'I': 5.0}\",\"('I', 'La', 'Si')\",OTHERS,False\nmp-1023934,\"{'Mo': 1.0, 'Se': 2.0}\",\"('Mo', 'Se')\",OTHERS,False\nmp-644758,\"{'Fe': 8.0, 'Mo': 16.0, 'N': 4.0}\",\"('Fe', 'Mo', 'N')\",OTHERS,False\nmp-7152,\"{'Cu': 2.0, 'Se': 6.0, 'Zr': 2.0, 'Cs': 2.0}\",\"('Cs', 'Cu', 'Se', 'Zr')\",OTHERS,False\nmp-559307,\"{'Cu': 12.0, 'P': 16.0, 'S': 12.0, 'I': 12.0}\",\"('Cu', 'I', 'P', 'S')\",OTHERS,False\nmp-776250,\"{'Zr': 4.0, 'N': 4.0, 'O': 2.0}\",\"('N', 'O', 'Zr')\",OTHERS,False\nmp-1224088,\"{'Ho': 1.0, 'Al': 6.0, 'Fe': 6.0}\",\"('Al', 'Fe', 'Ho')\",OTHERS,False\nmp-757698,\"{'Mn': 23.0, 'Fe': 1.0, 'O': 32.0}\",\"('Fe', 'Mn', 'O')\",OTHERS,False\nmp-1211074,\"{'Li': 3.0, 'Pt': 3.0, 'O': 6.0}\",\"('Li', 'O', 'Pt')\",OTHERS,False\nmp-1069042,\"{'Eu': 1.0, 'Zn': 2.0, 'Sb': 2.0}\",\"('Eu', 'Sb', 'Zn')\",OTHERS,False\nmp-1225649,\"{'Er': 4.0, 'Al': 4.0, 'Fe': 4.0}\",\"('Al', 'Er', 'Fe')\",OTHERS,False\nmp-1198347,\"{'Tb': 12.0, 'Al': 86.0, 'Cr': 8.0}\",\"('Al', 'Cr', 'Tb')\",OTHERS,False\nmp-773011,\"{'Dy': 8.0, 'Ge': 8.0, 'O': 28.0}\",\"('Dy', 'Ge', 'O')\",OTHERS,False\nmvc-5939,\"{'Mg': 2.0, 'Ti': 1.0, 'W': 1.0, 'O': 6.0}\",\"('Mg', 'O', 'Ti', 'W')\",OTHERS,False\nmp-581877,\"{'Cs': 6.0, 'Zr': 3.0, 'Si': 18.0, 'O': 45.0}\",\"('Cs', 'O', 'Si', 'Zr')\",OTHERS,False\nmp-1185250,\"{'Er': 1.0, 'Mg': 149.0}\",\"('Er', 'Mg')\",OTHERS,False\nmp-26173,\"{'Li': 1.0, 'Bi': 3.0, 'P': 2.0, 'O': 10.0}\",\"('Bi', 'Li', 'O', 'P')\",OTHERS,False\nmp-1217056,\"{'U': 7.0, 'V': 5.0, 'Ag': 3.0, 'O': 35.0}\",\"('Ag', 'O', 'U', 'V')\",OTHERS,False\nmp-1199352,\"{'Sb': 4.0, 'Xe': 4.0, 'F': 28.0}\",\"('F', 'Sb', 'Xe')\",OTHERS,False\nmp-1094395,\"{'Mg': 6.0, 'Ti': 2.0}\",\"('Mg', 'Ti')\",OTHERS,False\nmp-1215095,\"{'B': 8.0, 'N': 4.0, 'O': 22.0}\",\"('B', 'N', 'O')\",OTHERS,False\nmp-1174569,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1208866,\"{'Si': 2.0, 'P': 4.0, 'Ir': 1.0}\",\"('Ir', 'P', 'Si')\",OTHERS,False\nmp-1201801,\"{'Np': 4.0, 'Co': 2.0, 'O': 16.0, 'F': 20.0}\",\"('Co', 'F', 'Np', 'O')\",OTHERS,False\nmp-1173004,\"{'Mo': 6.0, 'O': 16.0}\",\"('Mo', 'O')\",OTHERS,False\nmp-1186313,\"{'Nd': 1.0, 'Ho': 1.0, 'Zn': 2.0}\",\"('Ho', 'Nd', 'Zn')\",OTHERS,False\nmp-1227010,\"{'Ce': 6.0, 'Al': 3.0, 'Ga': 3.0, 'Ni': 6.0}\",\"('Al', 'Ce', 'Ga', 'Ni')\",OTHERS,False\nmp-1218506,\"{'Sr': 4.0, 'Cu': 3.0, 'Ni': 1.0, 'O': 8.0}\",\"('Cu', 'Ni', 'O', 'Sr')\",OTHERS,False\nmp-573471,\"{'Li': 85.0, 'Sn': 20.0}\",\"('Li', 'Sn')\",OTHERS,False\nmp-1213686,\"{'Cs': 1.0, 'Cr': 1.0, 'Mo': 2.0, 'O': 8.0}\",\"('Cr', 'Cs', 'Mo', 'O')\",OTHERS,False\nmp-6198,\"{'O': 32.0, 'Si': 8.0, 'Ga': 8.0, 'Sr': 4.0}\",\"('Ga', 'O', 'Si', 'Sr')\",OTHERS,False\nmp-722382,\"{'P': 4.0, 'H': 44.0, 'C': 4.0, 'N': 8.0, 'O': 16.0}\",\"('C', 'H', 'N', 'O', 'P')\",OTHERS,False\nmp-21007,\"{'Sn': 3.0, 'Sm': 3.0, 'Pt': 3.0}\",\"('Pt', 'Sm', 'Sn')\",OTHERS,False\nmp-1244820,\"{'Sr': 4.0, 'Y': 2.0, 'Bi': 4.0, 'O': 14.0}\",\"('Bi', 'O', 'Sr', 'Y')\",OTHERS,False\nmp-558801,\"{'K': 4.0, 'Pr': 8.0, 'Cl': 18.0, 'O': 4.0}\",\"('Cl', 'K', 'O', 'Pr')\",OTHERS,False\nmp-1215660,\"{'Zn': 1.0, 'Hg': 4.0, 'Te': 5.0}\",\"('Hg', 'Te', 'Zn')\",OTHERS,False\nmp-530409,\"{'Bi': 20.0, 'Cl': 36.0, 'Hf': 6.0}\",\"('Bi', 'Cl', 'Hf')\",OTHERS,False\nmp-1977,\"{'Sn': 3.0, 'Nd': 1.0}\",\"('Nd', 'Sn')\",OTHERS,False\nmp-559588,\"{'Cd': 2.0, 'Sb': 2.0, 'S': 4.0, 'Br': 2.0}\",\"('Br', 'Cd', 'S', 'Sb')\",OTHERS,False\nmp-1025283,\"{'Pr': 1.0, 'In': 5.0, 'Rh': 1.0}\",\"('In', 'Pr', 'Rh')\",OTHERS,False\nmp-764927,\"{'Li': 12.0, 'Cr': 3.0, 'P': 9.0, 'O': 36.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1225944,\"{'Cs': 2.0, 'Sb': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Cs', 'O', 'Sb', 'W')\",OTHERS,False\nmp-1096132,\"{'Y': 2.0, 'Hg': 1.0, 'Pd': 1.0}\",\"('Hg', 'Pd', 'Y')\",OTHERS,False\nmp-36890,\"{'Bi': 3.0, 'O': 7.0, 'Ta': 1.0}\",\"('Bi', 'O', 'Ta')\",OTHERS,False\nmp-27398,\"{'Tl': 8.0, 'Br': 16.0}\",\"('Br', 'Tl')\",OTHERS,False\nmp-555092,\"{'K': 12.0, 'W': 4.0, 'S': 12.0, 'Cl': 4.0, 'O': 4.0}\",\"('Cl', 'K', 'O', 'S', 'W')\",OTHERS,False\nmp-1174835,\"{'Li': 6.0, 'Mn': 3.0, 'Co': 1.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-767627,\"{'Mn': 6.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmvc-16348,\"{'Zn': 6.0, 'Sb': 12.0, 'O': 24.0}\",\"('O', 'Sb', 'Zn')\",OTHERS,False\nmp-683660,\"{'Mn': 8.0, 'C': 32.0, 'Br': 8.0, 'O': 32.0}\",\"('Br', 'C', 'Mn', 'O')\",OTHERS,False\nmp-1175864,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-27008,\"{'Fe': 4.0, 'P': 6.0, 'O': 20.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-567655,\"{'Sr': 2.0, 'C': 1.0, 'N': 2.0, 'Cl': 2.0}\",\"('C', 'Cl', 'N', 'Sr')\",OTHERS,False\nmp-531021,\"{'Li': 11.0, 'Mn': 13.0, 'O': 32.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1247615,\"{'Ca': 16.0, 'Mn': 12.0, 'Cr': 4.0, 'O': 44.0}\",\"('Ca', 'Cr', 'Mn', 'O')\",OTHERS,False\nmp-570163,\"{'Tm': 8.0, 'Mn': 8.0, 'Sn': 14.0}\",\"('Mn', 'Sn', 'Tm')\",OTHERS,False\nmp-1073495,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1218624,\"{'Sr': 5.0, 'Ca': 5.0, 'P': 6.0, 'Cl': 2.0, 'O': 24.0}\",\"('Ca', 'Cl', 'O', 'P', 'Sr')\",OTHERS,False\nmp-1183774,\"{'Co': 6.0, 'Sn': 2.0}\",\"('Co', 'Sn')\",OTHERS,False\nmp-1237806,\"{'H': 16.0, 'C': 4.0, 'N': 12.0, 'O': 14.0}\",\"('C', 'H', 'N', 'O')\",OTHERS,False\nmp-758769,\"{'Li': 4.0, 'Ni': 4.0, 'C': 8.0, 'O': 24.0}\",\"('C', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-861891,\"{'Se': 2.0, 'Br': 4.0}\",\"('Br', 'Se')\",OTHERS,False\nmvc-525,\"{'Ca': 2.0, 'Cu': 6.0, 'P': 8.0, 'O': 28.0}\",\"('Ca', 'Cu', 'O', 'P')\",OTHERS,False\nmp-849509,\"{'Li': 16.0, 'V': 8.0, 'P': 8.0, 'O': 32.0, 'F': 8.0}\",\"('F', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1208619,\"{'Sr': 2.0, 'Li': 2.0, 'Ga': 2.0, 'F': 12.0}\",\"('F', 'Ga', 'Li', 'Sr')\",OTHERS,False\nmp-1194315,\"{'Ni': 14.0, 'P': 14.0}\",\"('Ni', 'P')\",OTHERS,False\nmp-1074011,\"{'Mg': 12.0, 'Si': 10.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1245956,\"{'Al': 2.0, 'Pb': 6.0, 'N': 6.0}\",\"('Al', 'N', 'Pb')\",OTHERS,False\nmp-1219254,\"{'Sc': 1.0, 'In': 1.0, 'P': 2.0}\",\"('In', 'P', 'Sc')\",OTHERS,False\nmp-1227158,\"{'Ce': 2.0, 'Ta': 14.0, 'O': 38.0}\",\"('Ce', 'O', 'Ta')\",OTHERS,False\nmp-1037735,\"{'Y': 1.0, 'Mg': 30.0, 'V': 1.0, 'O': 32.0}\",\"('Mg', 'O', 'V', 'Y')\",OTHERS,False\nmp-1076123,\"{'Eu': 4.0, 'Co': 4.0, 'O': 10.0}\",\"('Co', 'Eu', 'O')\",OTHERS,False\nmp-1198344,\"{'Ir': 4.0, 'Rh': 4.0, 'Br': 24.0, 'N': 20.0, 'Cl': 4.0}\",\"('Br', 'Cl', 'Ir', 'N', 'Rh')\",OTHERS,False\nmp-1184519,\"{'In': 6.0, 'Cl': 2.0}\",\"('Cl', 'In')\",OTHERS,False\nmp-720100,\"{'Na': 2.0, 'H': 36.0, 'C': 18.0, 'I': 2.0, 'N': 6.0, 'O': 6.0}\",\"('C', 'H', 'I', 'N', 'Na', 'O')\",OTHERS,False\nmp-1212858,\"{'Dy': 10.0, 'Sb': 2.0, 'Pt': 4.0}\",\"('Dy', 'Pt', 'Sb')\",OTHERS,False\nmp-11493,\"{'Lu': 1.0, 'Pb': 2.0}\",\"('Lu', 'Pb')\",OTHERS,False\nmp-675192,\"{'Ce': 3.0, 'Dy': 2.0, 'O': 9.0}\",\"('Ce', 'Dy', 'O')\",OTHERS,False\nmp-759552,\"{'Li': 4.0, 'Cr': 2.0, 'P': 8.0, 'H': 32.0, 'O': 40.0}\",\"('Cr', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmvc-10489,\"{'Ca': 4.0, 'Co': 8.0, 'Cu': 8.0, 'O': 32.0}\",\"('Ca', 'Co', 'Cu', 'O')\",OTHERS,False\nmp-1245357,\"{'Ba': 12.0, 'Mn': 24.0, 'N': 48.0}\",\"('Ba', 'Mn', 'N')\",OTHERS,False\nmp-1027293,\"{'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 6.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-25380,\"{'O': 8.0, 'F': 2.0, 'P': 2.0, 'Cu': 2.0}\",\"('Cu', 'F', 'O', 'P')\",OTHERS,False\nmp-1229007,\"{'Ag': 1.0, 'Sb': 1.0, 'Te': 1.0, 'Se': 1.0}\",\"('Ag', 'Sb', 'Se', 'Te')\",OTHERS,False\nmp-1182617,\"{'Co': 6.0, 'P': 6.0, 'H': 18.0, 'O': 30.0}\",\"('Co', 'H', 'O', 'P')\",OTHERS,False\nmp-1200195,\"{'Sc': 12.0, 'Mn': 12.0, 'Ge': 24.0}\",\"('Ge', 'Mn', 'Sc')\",OTHERS,False\nmp-760595,\"{'Cu': 4.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Cu', 'O')\",OTHERS,False\nmp-1223475,\"{'K': 2.0, 'Na': 2.0, 'Ca': 2.0, 'Th': 2.0, 'Si': 16.0, 'O': 40.0}\",\"('Ca', 'K', 'Na', 'O', 'Si', 'Th')\",OTHERS,False\nmp-10478,\"{'As': 4.0, 'Rh': 4.0, 'Ce': 4.0}\",\"('As', 'Ce', 'Rh')\",OTHERS,False\nmp-1025282,\"{'Ti': 1.0, 'V': 2.0, 'Te': 4.0}\",\"('Te', 'Ti', 'V')\",OTHERS,False\nmp-556146,\"{'Sn': 4.0, 'C': 4.0, 'S': 4.0, 'N': 4.0, 'F': 4.0}\",\"('C', 'F', 'N', 'S', 'Sn')\",OTHERS,False\nmp-641962,\"{'K': 4.0, 'Au': 4.0, 'C': 8.0, 'S': 8.0, 'N': 8.0}\",\"('Au', 'C', 'K', 'N', 'S')\",OTHERS,False\nmp-1215061,\"{'Ba': 4.0, 'Na': 2.0, 'Ti': 4.0, 'Mn': 2.0, 'Re': 4.0, 'Si': 16.0, 'H': 2.0, 'O': 52.0, 'F': 2.0}\",\"('Ba', 'F', 'H', 'Mn', 'Na', 'O', 'Re', 'Si', 'Ti')\",OTHERS,False\nmp-1101555,\"{'Li': 4.0, 'Mo': 2.0, 'P': 8.0, 'O': 26.0}\",\"('Li', 'Mo', 'O', 'P')\",OTHERS,False\nmp-1094254,\"{'Zr': 5.0, 'Sn': 1.0}\",\"('Sn', 'Zr')\",OTHERS,False\nmp-865913,\"{'Li': 2.0, 'Ac': 1.0, 'Sn': 1.0}\",\"('Ac', 'Li', 'Sn')\",OTHERS,False\nmp-1222706,\"{'La': 1.0, 'Zn': 1.0, 'Ag': 1.0, 'As': 2.0}\",\"('Ag', 'As', 'La', 'Zn')\",OTHERS,False\nmp-510484,\"{'Sn': 4.0, 'Ni': 8.0, 'Ca': 2.0}\",\"('Ca', 'Ni', 'Sn')\",OTHERS,False\nmp-1219530,\"{'Sb': 28.0, 'Mo': 9.0, 'Ru': 3.0}\",\"('Mo', 'Ru', 'Sb')\",OTHERS,False\nmp-1207948,\"{'V': 8.0, 'As': 8.0, 'N': 8.0, 'O': 32.0, 'F': 8.0}\",\"('As', 'F', 'N', 'O', 'V')\",OTHERS,False\nmp-753741,\"{'Li': 12.0, 'Cu': 4.0, 'S': 8.0}\",\"('Cu', 'Li', 'S')\",OTHERS,False\nmp-1094171,\"{'La': 6.0, 'Mg': 2.0}\",\"('La', 'Mg')\",OTHERS,False\nmvc-12664,\"{'Mg': 4.0, 'Ni': 4.0, 'O': 8.0}\",\"('Mg', 'Ni', 'O')\",OTHERS,False\nmvc-9385,\"{'Pr': 2.0, 'Mg': 2.0, 'Cr': 4.0, 'O': 12.0}\",\"('Cr', 'Mg', 'O', 'Pr')\",OTHERS,False\nmp-4240,\"{'Rb': 1.0, 'Te': 2.0, 'Ce': 1.0}\",\"('Ce', 'Rb', 'Te')\",OTHERS,False\nmp-865080,\"{'Na': 1.0, 'Ce': 1.0, 'Au': 2.0}\",\"('Au', 'Ce', 'Na')\",OTHERS,False\nmp-1216971,\"{'Ti': 3.0, 'Nb': 6.0, 'O': 21.0}\",\"('Nb', 'O', 'Ti')\",OTHERS,False\nmp-1211760,\"{'K': 4.0, 'Eu': 8.0, 'Cl': 28.0}\",\"('Cl', 'Eu', 'K')\",OTHERS,False\nmp-1176051,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1177350,\"{'Li': 4.0, 'Mn': 5.0, 'Sb': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'Mn', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1183370,\"{'Ba': 4.0, 'Sn': 4.0, 'S': 12.0}\",\"('Ba', 'S', 'Sn')\",OTHERS,False\nmp-1095603,\"{'Y': 4.0, 'As': 4.0, 'Se': 4.0}\",\"('As', 'Se', 'Y')\",OTHERS,False\nmp-1182493,\"{'Ca': 4.0, 'V': 4.0, 'Si': 16.0, 'O': 60.0}\",\"('Ca', 'O', 'Si', 'V')\",OTHERS,False\nmp-1190638,\"{'Dy': 8.0, 'Ge': 8.0, 'Pd': 8.0}\",\"('Dy', 'Ge', 'Pd')\",OTHERS,False\nmp-1223896,\"{'Hg': 1.0, 'Br': 1.0, 'N': 1.0}\",\"('Br', 'Hg', 'N')\",OTHERS,False\nmp-680232,\"{'K': 16.0, 'Ag': 8.0, 'C': 24.0, 'S': 24.0, 'N': 24.0}\",\"('Ag', 'C', 'K', 'N', 'S')\",OTHERS,False\nmp-1226025,\"{'K': 3.0, 'Zr': 4.0, 'Si': 12.0, 'H': 1.0, 'O': 44.0}\",\"('H', 'K', 'O', 'Si', 'Zr')\",OTHERS,False\nmp-759399,\"{'Na': 4.0, 'Co': 12.0, 'O': 16.0}\",\"('Co', 'Na', 'O')\",OTHERS,False\nmp-1001790,\"{'Li': 1.0, 'O': 3.0}\",\"('Li', 'O')\",OTHERS,False\nmvc-5807,\"{'Zn': 4.0, 'Cr': 2.0, 'Ir': 2.0, 'O': 12.0}\",\"('Cr', 'Ir', 'O', 'Zn')\",OTHERS,False\nmp-778251,\"{'Li': 4.0, 'Ti': 1.0, 'Co': 2.0, 'Ni': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Co', 'Li', 'Ni', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1188179,\"{'Er': 4.0, 'Al': 6.0, 'Ge': 8.0}\",\"('Al', 'Er', 'Ge')\",OTHERS,False\nmp-540702,\"{'Fe': 21.0, 'Se': 24.0}\",\"('Fe', 'Se')\",OTHERS,False\nmp-572674,\"{'Re': 3.0, 'C': 6.0, 'I': 6.0, 'O': 6.0}\",\"('C', 'I', 'O', 'Re')\",OTHERS,False\nmp-1227758,\"{'Ca': 4.0, 'Ti': 2.0, 'Cr': 2.0, 'O': 12.0}\",\"('Ca', 'Cr', 'O', 'Ti')\",OTHERS,False\nmp-1201100,\"{'Ce': 3.0, 'Ag': 3.0, 'S': 6.0, 'O': 27.0}\",\"('Ag', 'Ce', 'O', 'S')\",OTHERS,False\nmp-1226632,\"{'Cr': 24.0, 'P': 11.0, 'C': 1.0}\",\"('C', 'Cr', 'P')\",OTHERS,False\nmvc-5754,\"{'Mg': 4.0, 'Bi': 8.0, 'O': 16.0}\",\"('Bi', 'Mg', 'O')\",OTHERS,False\nmp-1224896,\"{'Fe': 2.0, 'Sb': 12.0, 'Pd': 2.0}\",\"('Fe', 'Pd', 'Sb')\",OTHERS,False\nmp-1096989,\"{'H': 24.0, 'C': 4.0, 'N': 4.0, 'Cl': 4.0}\",\"('C', 'Cl', 'H', 'N')\",OTHERS,False\nmp-867537,\"{'Li': 4.0, 'Co': 3.0, 'Ni': 1.0, 'O': 8.0}\",\"('Co', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-1199851,\"{'Er': 4.0, 'C': 12.0, 'O': 32.0}\",\"('C', 'Er', 'O')\",OTHERS,False\nmp-14046,\"{'O': 48.0, 'Si': 12.0, 'V': 8.0, 'Mn': 12.0}\",\"('Mn', 'O', 'Si', 'V')\",OTHERS,False\nmp-2199,\"{'Si': 1.0, 'Fe': 3.0}\",\"('Fe', 'Si')\",OTHERS,False\nmp-29422,\"{'Cl': 8.0, 'Hf': 2.0}\",\"('Cl', 'Hf')\",OTHERS,False\nmp-556044,\"{'Si': 12.0, 'O': 24.0}\",\"('O', 'Si')\",OTHERS,False\nmp-705154,\"{'Li': 2.0, 'Cr': 8.0, 'P': 14.0, 'O': 48.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1247606,\"{'Sr': 4.0, 'Ca': 28.0, 'Mn': 28.0, 'Cr': 4.0, 'O': 88.0}\",\"('Ca', 'Cr', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1094704,\"{'Mg': 10.0, 'Cd': 2.0}\",\"('Cd', 'Mg')\",OTHERS,False\nmp-1027049,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-772659,\"{'Li': 12.0, 'Cr': 4.0, 'O': 16.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-755444,\"{'Li': 1.0, 'Zn': 1.0, 'Fe': 4.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Zn')\",OTHERS,False\nmp-1187775,\"{'Yb': 2.0, 'Pu': 6.0}\",\"('Pu', 'Yb')\",OTHERS,False\nmp-1214188,\"{'Ce': 8.0, 'Ta': 12.0, 'Se': 8.0, 'O': 32.0}\",\"('Ce', 'O', 'Se', 'Ta')\",OTHERS,False\nmp-7432,\"{'Sr': 1.0, 'Cd': 2.0, 'Sb': 2.0}\",\"('Cd', 'Sb', 'Sr')\",OTHERS,False\nmp-752797,\"{'Co': 6.0, 'O': 1.0, 'F': 11.0}\",\"('Co', 'F', 'O')\",OTHERS,False\nmp-2544,\"{'Be': 17.0, 'Zr': 2.0}\",\"('Be', 'Zr')\",OTHERS,False\nmp-7463,\"{'P': 6.0, 'Cu': 18.0}\",\"('Cu', 'P')\",OTHERS,True\nmp-1195659,\"{'Th': 4.0, 'Se': 8.0, 'O': 24.0}\",\"('O', 'Se', 'Th')\",OTHERS,True\nmp-1018786,\"{'Li': 2.0, 'Mn': 2.0, 'Sb': 2.0}\",\"('Li', 'Mn', 'Sb')\",OTHERS,True\nmp-651173,\"{'K': 6.0, 'W': 2.0, 'C': 8.0, 'N': 8.0, 'O': 2.0, 'F': 2.0}\",\"('C', 'F', 'K', 'N', 'O', 'W')\",OTHERS,True\nmp-1095230,\"{'Ca': 2.0, 'Se': 2.0, 'O': 8.0}\",\"('Ca', 'O', 'Se')\",OTHERS,True\nmp-1218639,\"{'Sr': 5.0, 'Mn': 4.0, 'C': 1.0, 'O': 13.0}\",\"('C', 'Mn', 'O', 'Sr')\",OTHERS,True\nmp-21313,\"{'C': 1.0, 'Mn': 3.0, 'Ga': 1.0}\",\"('C', 'Ga', 'Mn')\",OTHERS,True\nmp-768659,\"{'Li': 4.0, 'Co': 4.0, 'S': 6.0, 'O': 24.0}\",\"('Co', 'Li', 'O', 'S')\",OTHERS,True\nmp-1210938,\"{'Sm': 10.0, 'In': 20.0, 'Pd': 10.0}\",\"('In', 'Pd', 'Sm')\",OTHERS,True\nmvc-2827,\"{'Ca': 4.0, 'Ta': 4.0, 'Fe': 2.0, 'O': 16.0}\",\"('Ca', 'Fe', 'O', 'Ta')\",OTHERS,True\nmp-762265,\"{'Li': 3.0, 'V': 5.0, 'O': 10.0}\",\"('Li', 'O', 'V')\",OTHERS,True\nmp-779031,\"{'Na': 4.0, 'V': 4.0, 'P': 8.0, 'O': 32.0}\",\"('Na', 'O', 'P', 'V')\",OTHERS,True\nmp-1246289,\"{'Mg': 6.0, 'Bi': 6.0, 'N': 10.0}\",\"('Bi', 'Mg', 'N')\",OTHERS,True\nmp-1200207,\"{'Cs': 16.0, 'Ga': 22.0}\",\"('Cs', 'Ga')\",OTHERS,True\nmp-1111691,\"{'K': 3.0, 'Tl': 1.0, 'F': 6.0}\",\"('F', 'K', 'Tl')\",OTHERS,True\nmp-9820,\"{'F': 6.0, 'As': 1.0, 'Cs': 1.0}\",\"('As', 'Cs', 'F')\",OTHERS,True\nmp-22724,\"{'F': 14.0, 'Zr': 2.0, 'Ce': 2.0}\",\"('Ce', 'F', 'Zr')\",OTHERS,True\nmp-1207797,\"{'Y': 3.0, 'Ga': 9.0, 'Cu': 2.0}\",\"('Cu', 'Ga', 'Y')\",OTHERS,True\nmp-753198,\"{'Mg': 2.0, 'Fe': 4.0, 'O': 8.0}\",\"('Fe', 'Mg', 'O')\",OTHERS,True\nmp-1029165,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 6.0}\",\"('Mo', 'Se', 'Te', 'W')\",OTHERS,True\nmp-684769,\"{'Sr': 2.0, 'La': 6.0, 'Ti': 1.0, 'Cu': 3.0, 'O': 16.0}\",\"('Cu', 'La', 'O', 'Sr', 'Ti')\",OTHERS,True\nmp-541923,\"{'Tl': 4.0, 'Cu': 20.0, 'Se': 12.0}\",\"('Cu', 'Se', 'Tl')\",OTHERS,True\nmp-1188122,\"{'Ba': 4.0, 'Er': 2.0, 'In': 2.0, 'Se': 10.0}\",\"('Ba', 'Er', 'In', 'Se')\",OTHERS,True\nmp-1112401,\"{'Cs': 1.0, 'Rb': 2.0, 'Ir': 1.0, 'F': 6.0}\",\"('Cs', 'F', 'Ir', 'Rb')\",OTHERS,True\nmp-1020010,\"{'Li': 8.0, 'Ca': 12.0, 'N': 24.0}\",\"('Ca', 'Li', 'N')\",OTHERS,True\nmp-863410,\"{'Li': 4.0, 'Nb': 2.0, 'P': 10.0, 'O': 30.0}\",\"('Li', 'Nb', 'O', 'P')\",OTHERS,True\nmp-558487,\"{'Gd': 4.0, 'P': 20.0, 'O': 56.0}\",\"('Gd', 'O', 'P')\",OTHERS,True\nmp-8184,\"{'Li': 4.0, 'O': 8.0, 'Zn': 2.0, 'Ge': 2.0}\",\"('Ge', 'Li', 'O', 'Zn')\",OTHERS,True\nmp-29776,\"{'Ge': 18.0, 'Rh': 26.0, 'Ce': 8.0}\",\"('Ce', 'Ge', 'Rh')\",OTHERS,True\nmp-582282,\"{'Gd': 2.0, 'Ag': 2.0, 'Se': 4.0}\",\"('Ag', 'Gd', 'Se')\",OTHERS,True\nmp-985626,\"{'Na': 3.0, 'Mn': 2.0, 'Sb': 1.0, 'O': 6.0}\",\"('Mn', 'Na', 'O', 'Sb')\",OTHERS,True\nmp-1025513,\"{'Zr': 4.0, 'Ge': 4.0}\",\"('Ge', 'Zr')\",OTHERS,True\nmp-1209864,\"{'Nd': 6.0, 'Zr': 2.0, 'Sb': 10.0}\",\"('Nd', 'Sb', 'Zr')\",OTHERS,True\nmp-1217847,\"{'Sr': 2.0, 'Ti': 8.0, 'Bi': 8.0, 'O': 30.0}\",\"('Bi', 'O', 'Sr', 'Ti')\",OTHERS,True\nmp-9705,\"{'B': 3.0, 'N': 6.0, 'Na': 1.0, 'Ba': 4.0}\",\"('B', 'Ba', 'N', 'Na')\",OTHERS,True\nmp-1036805,\"{'Ba': 1.0, 'Mg': 30.0, 'V': 1.0, 'O': 32.0}\",\"('Ba', 'Mg', 'O', 'V')\",OTHERS,True\nmp-557328,\"{'Li': 3.0, 'Zn': 2.0, 'Sb': 1.0, 'O': 6.0}\",\"('Li', 'O', 'Sb', 'Zn')\",OTHERS,True\nmp-26684,\"{'Li': 6.0, 'O': 36.0, 'P': 10.0, 'Cr': 4.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,True\nmp-554873,\"{'Ag': 8.0, 'B': 32.0, 'O': 52.0}\",\"('Ag', 'B', 'O')\",OTHERS,True\nmp-10609,\"{'C': 1.0, 'Sn': 1.0, 'Lu': 3.0}\",\"('C', 'Lu', 'Sn')\",OTHERS,True\nmp-1009213,\"{'Mn': 1.0, 'Sb': 1.0}\",\"('Mn', 'Sb')\",OTHERS,True\nmp-1187601,\"{'Tm': 2.0, 'Tl': 1.0, 'Zn': 1.0}\",\"('Tl', 'Tm', 'Zn')\",OTHERS,True\nmp-1188132,\"{'Ho': 4.0, 'Mo': 4.0, 'C': 8.0}\",\"('C', 'Ho', 'Mo')\",OTHERS,True\nmvc-14545,\"{'Ca': 1.0, 'La': 2.0, 'Sb': 1.0, 'O': 6.0}\",\"('Ca', 'La', 'O', 'Sb')\",OTHERS,True\nmp-1222495,\"{'Li': 3.0, 'Cd': 1.0}\",\"('Cd', 'Li')\",OTHERS,True\nmp-27331,\"{'K': 12.0, 'Ge': 4.0, 'Te': 12.0}\",\"('Ge', 'K', 'Te')\",OTHERS,True\nmp-1226404,\"{'Cu': 4.0, 'Si': 4.0, 'H': 72.0, 'C': 28.0, 'S': 12.0, 'I': 4.0}\",\"('C', 'Cu', 'H', 'I', 'S', 'Si')\",OTHERS,True\nmp-569020,\"{'In': 2.0, 'Sb': 2.0}\",\"('In', 'Sb')\",OTHERS,True\nmvc-4646,\"{'Ca': 8.0, 'Bi': 16.0, 'O': 32.0}\",\"('Bi', 'Ca', 'O')\",OTHERS,True\nmp-28319,\"{'I': 8.0, 'Pt': 4.0}\",\"('I', 'Pt')\",OTHERS,True\nmp-1093914,\"{'Mn': 1.0, 'Be': 2.0, 'Ru': 1.0}\",\"('Be', 'Mn', 'Ru')\",OTHERS,True\nmp-1222654,\"{'Li': 2.0, 'Ga': 1.0, 'Si': 1.0}\",\"('Ga', 'Li', 'Si')\",OTHERS,True\nmp-780712,\"{'Ce': 4.0, 'Cr': 4.0, 'O': 12.0}\",\"('Ce', 'Cr', 'O')\",OTHERS,True\nmp-26399,\"{'Li': 6.0, 'O': 16.0, 'P': 4.0, 'V': 2.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-559813,\"{'Ba': 9.0, 'Cu': 7.0, 'Cl': 2.0, 'O': 15.0}\",\"('Ba', 'Cl', 'Cu', 'O')\",OTHERS,True\nmvc-5780,\"{'Mg': 4.0, 'Fe': 2.0, 'Ir': 2.0, 'O': 12.0}\",\"('Fe', 'Ir', 'Mg', 'O')\",OTHERS,True\nmp-862846,\"{'Ca': 1.0, 'La': 1.0, 'Hg': 2.0}\",\"('Ca', 'Hg', 'La')\",OTHERS,True\nmp-29844,\"{'Al': 9.0, 'Cl': 36.0, 'Tb': 3.0}\",\"('Al', 'Cl', 'Tb')\",OTHERS,True\nmp-31145,\"{'Cu': 2.0, 'Ba': 2.0, 'Bi': 2.0}\",\"('Ba', 'Bi', 'Cu')\",OTHERS,True\nmp-20519,\"{'S': 2.0, 'Cd': 1.0, 'In': 1.0}\",\"('Cd', 'In', 'S')\",OTHERS,True\nmp-1033291,\"{'Mg': 6.0, 'B': 1.0, 'C': 1.0, 'O': 8.0}\",\"('B', 'C', 'Mg', 'O')\",OTHERS,True\nmp-541441,\"{'Zn': 2.0, 'Te': 2.0}\",\"('Te', 'Zn')\",OTHERS,True\nmp-1095711,\"{'Mg': 1.0, 'Sc': 1.0, 'Au': 2.0}\",\"('Au', 'Mg', 'Sc')\",OTHERS,True\nmp-771838,\"{'La': 8.0, 'Al': 12.0, 'O': 30.0}\",\"('Al', 'La', 'O')\",OTHERS,True\nmp-758006,\"{'Ca': 8.0, 'Si': 4.0, 'O': 16.0}\",\"('Ca', 'O', 'Si')\",OTHERS,True\nmp-706611,\"{'Li': 4.0, 'Be': 4.0, 'H': 16.0, 'N': 4.0, 'F': 16.0}\",\"('Be', 'F', 'H', 'Li', 'N')\",OTHERS,True\nmp-680205,\"{'Pb': 15.0, 'I': 30.0}\",\"('I', 'Pb')\",OTHERS,True\nmp-5577,\"{'Ge': 2.0, 'Rh': 2.0, 'Ce': 1.0}\",\"('Ce', 'Ge', 'Rh')\",OTHERS,True\nmp-1197388,\"{'Gd': 8.0, 'Fe': 56.0, 'C': 4.0}\",\"('C', 'Fe', 'Gd')\",OTHERS,True\nmp-546266,\"{'O': 4.0, 'Bi': 2.0, 'Dy': 1.0, 'I': 1.0}\",\"('Bi', 'Dy', 'I', 'O')\",OTHERS,True\nmp-574430,\"{'Ba': 2.0, 'U': 2.0, 'I': 12.0}\",\"('Ba', 'I', 'U')\",OTHERS,True\nmp-30782,\"{'Mg': 23.0, 'Sr': 6.0}\",\"('Mg', 'Sr')\",OTHERS,True\nmp-21657,\"{'Se': 12.0, 'Tl': 20.0}\",\"('Se', 'Tl')\",OTHERS,True\nmp-1208739,\"{'Sr': 4.0, 'Al': 4.0, 'H': 4.0, 'O': 4.0, 'F': 16.0}\",\"('Al', 'F', 'H', 'O', 'Sr')\",OTHERS,True\nmp-755999,\"{'Rb': 4.0, 'Be': 4.0, 'O': 6.0}\",\"('Be', 'O', 'Rb')\",OTHERS,True\nmp-561414,\"{'K': 12.0, 'Hg': 12.0, 'S': 8.0, 'Br': 20.0, 'O': 24.0}\",\"('Br', 'Hg', 'K', 'O', 'S')\",OTHERS,True\nmp-1227126,\"{'Ca': 2.0, 'Y': 2.0, 'Mn': 4.0, 'O': 12.0}\",\"('Ca', 'Mn', 'O', 'Y')\",OTHERS,True\nmp-6065,\"{'O': 6.0, 'Ga': 1.0, 'Sr': 2.0, 'Sb': 1.0}\",\"('Ga', 'O', 'Sb', 'Sr')\",OTHERS,True\nmp-555139,\"{'Zr': 4.0, 'Cu': 6.0, 'H': 64.0, 'O': 32.0, 'F': 28.0}\",\"('Cu', 'F', 'H', 'O', 'Zr')\",OTHERS,True\nmp-1095804,\"{'Nb': 1.0, 'Zn': 1.0, 'Ni': 2.0}\",\"('Nb', 'Ni', 'Zn')\",OTHERS,True\nmp-780528,\"{'Na': 12.0, 'Cr': 4.0, 'C': 8.0, 'S': 2.0, 'O': 32.0}\",\"('C', 'Cr', 'Na', 'O', 'S')\",OTHERS,True\nmp-31024,\"{'C': 1.0, 'Cl': 8.0, 'Sc': 5.0}\",\"('C', 'Cl', 'Sc')\",OTHERS,True\nmp-756507,\"{'Li': 2.0, 'Fe': 2.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('Fe', 'H', 'Li', 'O', 'P')\",OTHERS,True\nmp-1246688,\"{'Zr': 2.0, 'Sn': 2.0, 'N': 4.0}\",\"('N', 'Sn', 'Zr')\",OTHERS,True\nmp-30301,\"{'Li': 4.0, 'O': 16.0, 'Cl': 4.0}\",\"('Cl', 'Li', 'O')\",OTHERS,True\nmp-757560,\"{'Li': 6.0, 'Sn': 4.0, 'P': 14.0, 'O': 42.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,True\nmp-1094591,\"{'Li': 6.0, 'Mg': 2.0}\",\"('Li', 'Mg')\",OTHERS,True\nmvc-10249,\"{'Mg': 2.0, 'Sb': 6.0, 'P': 6.0, 'O': 26.0}\",\"('Mg', 'O', 'P', 'Sb')\",OTHERS,True\nmp-22243,\"{'Li': 4.0, 'O': 16.0, 'Ni': 4.0, 'As': 4.0}\",\"('As', 'Li', 'Ni', 'O')\",OTHERS,True\nmp-697108,\"{'K': 6.0, 'H': 2.0, 'Rh': 2.0, 'C': 10.0, 'N': 10.0, 'O': 2.0}\",\"('C', 'H', 'K', 'N', 'O', 'Rh')\",OTHERS,True\nmp-1265272,\"{'Li': 2.0, 'Mg': 2.0, 'Al': 6.0, 'S': 12.0, 'O': 48.0}\",\"('Al', 'Li', 'Mg', 'O', 'S')\",OTHERS,True\nmp-601275,\"{'K': 12.0, 'Al': 4.0, 'H': 24.0}\",\"('Al', 'H', 'K')\",OTHERS,True\nmp-29281,\"{'P': 132.0, 'Th': 24.0}\",\"('P', 'Th')\",OTHERS,True\nmp-1079861,\"{'Tm': 2.0, 'Co': 2.0, 'Ge': 4.0}\",\"('Co', 'Ge', 'Tm')\",OTHERS,True\nmp-1200003,\"{'Fe': 8.0, 'As': 8.0, 'N': 8.0, 'O': 32.0, 'F': 8.0}\",\"('As', 'F', 'Fe', 'N', 'O')\",OTHERS,True\nmp-1218092,\"{'Ta': 4.0, 'Nb': 2.0, 'Te': 2.0, 'I': 14.0}\",\"('I', 'Nb', 'Ta', 'Te')\",OTHERS,True\nmp-1245479,\"{'Ca': 10.0, 'Hf': 4.0, 'N': 12.0}\",\"('Ca', 'Hf', 'N')\",OTHERS,True\nmp-865758,\"{'Yb': 1.0, 'Ge': 1.0, 'O': 3.0}\",\"('Ge', 'O', 'Yb')\",OTHERS,True\nmp-26576,\"{'Li': 4.0, 'Fe': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,True\nmp-757666,\"{'Ca': 4.0, 'B': 20.0, 'H': 12.0, 'O': 40.0}\",\"('B', 'Ca', 'H', 'O')\",OTHERS,True\nmp-1213960,\"{'Ce': 4.0, 'Ni': 6.0, 'Ge': 10.0}\",\"('Ce', 'Ge', 'Ni')\",OTHERS,True\nmp-566150,\"{'In': 4.0, 'Cu': 6.0, 'P': 8.0, 'O': 32.0}\",\"('Cu', 'In', 'O', 'P')\",OTHERS,True\nmp-19811,\"{'Ru': 3.0, 'Sn': 3.0, 'U': 3.0}\",\"('Ru', 'Sn', 'U')\",OTHERS,True\nmp-20079,\"{'O': 12.0, 'Ca': 4.0, 'Pb': 4.0}\",\"('Ca', 'O', 'Pb')\",OTHERS,True\nmp-862362,\"{'Sc': 2.0, 'Tc': 1.0, 'Pt': 1.0}\",\"('Pt', 'Sc', 'Tc')\",OTHERS,True\nmp-1228819,\"{'As': 4.0, 'S': 2.0}\",\"('As', 'S')\",OTHERS,True\nmp-849339,\"{'Mn': 6.0, 'O': 10.0, 'F': 2.0}\",\"('F', 'Mn', 'O')\",OTHERS,True\nmp-18909,\"{'O': 8.0, 'P': 2.0, 'Ni': 2.0, 'Ba': 1.0}\",\"('Ba', 'Ni', 'O', 'P')\",OTHERS,True\nmp-1192640,\"{'Na': 2.0, 'Nb': 4.0, 'Se': 4.0, 'O': 19.0}\",\"('Na', 'Nb', 'O', 'Se')\",OTHERS,True\nmp-1096678,\"{'Nb': 2.0, 'Tc': 1.0, 'Ru': 1.0}\",\"('Nb', 'Ru', 'Tc')\",OTHERS,True\nmp-998152,\"{'Tl': 1.0, 'Ag': 1.0, 'F': 3.0}\",\"('Ag', 'F', 'Tl')\",OTHERS,True\nmp-758113,\"{'Li': 3.0, 'Fe': 6.0, 'Si': 6.0, 'O': 24.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,True\nmp-753571,\"{'Li': 1.0, 'V': 1.0, 'F': 6.0}\",\"('F', 'Li', 'V')\",OTHERS,True\nmp-867971,\"{'Mn': 15.0, 'O': 32.0}\",\"('Mn', 'O')\",OTHERS,True\nmp-757177,\"{'Li': 12.0, 'Cu': 2.0, 'S': 8.0}\",\"('Cu', 'Li', 'S')\",OTHERS,True\nmp-19739,\"{'Sc': 1.0, 'Fe': 6.0, 'Ge': 6.0}\",\"('Fe', 'Ge', 'Sc')\",OTHERS,True\nmp-27721,\"{'H': 12.0, 'As': 4.0}\",\"('As', 'H')\",OTHERS,True\nmp-1221702,\"{'Mn': 1.0, 'Al': 1.0, 'Rh': 2.0}\",\"('Al', 'Mn', 'Rh')\",OTHERS,True\nmp-504703,\"{'Eu': 4.0, 'Fe': 4.0, 'O': 12.0}\",\"('Eu', 'Fe', 'O')\",OTHERS,True\nmp-15821,\"{'Li': 3.0, 'Ge': 3.0, 'Nd': 3.0}\",\"('Ge', 'Li', 'Nd')\",OTHERS,True\nmp-756603,\"{'Li': 4.0, 'Al': 2.0, 'Ni': 2.0, 'O': 8.0}\",\"('Al', 'Li', 'Ni', 'O')\",OTHERS,True\nmp-38125,\"{'Cd': 2.0, 'Se': 8.0, 'Sm': 4.0}\",\"('Cd', 'Se', 'Sm')\",OTHERS,True\nmp-42022,\"{'Cs': 2.0, 'F': 5.0, 'O': 1.0, 'Rb': 1.0, 'Zr': 1.0}\",\"('Cs', 'F', 'O', 'Rb', 'Zr')\",OTHERS,True\nmp-776555,\"{'Na': 4.0, 'V': 12.0, 'P': 8.0, 'O': 52.0}\",\"('Na', 'O', 'P', 'V')\",OTHERS,True\nmp-760888,\"{'V': 8.0, 'O': 2.0, 'F': 22.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmp-1030319,\"{'Te': 8.0, 'Mo': 4.0}\",\"('Mo', 'Te')\",OTHERS,True\nmp-862811,\"{'Cs': 2.0, 'K': 1.0, 'U': 2.0, 'Si': 4.0, 'O': 14.0}\",\"('Cs', 'K', 'O', 'Si', 'U')\",OTHERS,True\nmp-1183639,\"{'Cd': 1.0, 'Hg': 3.0}\",\"('Cd', 'Hg')\",OTHERS,True\nmp-1185021,\"{'La': 1.0, 'Pm': 1.0, 'Ru': 2.0}\",\"('La', 'Pm', 'Ru')\",OTHERS,True\nmp-556288,\"{'Li': 4.0, 'Re': 2.0, 'O': 6.0}\",\"('Li', 'O', 'Re')\",OTHERS,True\nmp-770413,\"{'La': 4.0, 'Ho': 4.0, 'O': 12.0}\",\"('Ho', 'La', 'O')\",OTHERS,True\nmp-1200278,\"{'Sn': 4.0, 'H': 28.0, 'Cl': 12.0, 'O': 16.0}\",\"('Cl', 'H', 'O', 'Sn')\",OTHERS,True\nmp-698483,\"{'U': 4.0, 'Cu': 2.0, 'As': 4.0, 'H': 48.0, 'O': 48.0}\",\"('As', 'Cu', 'H', 'O', 'U')\",OTHERS,True\nmp-1232173,\"{'Ho': 8.0, 'Mg': 4.0, 'Se': 16.0}\",\"('Ho', 'Mg', 'Se')\",OTHERS,True\nmp-778584,\"{'Li': 1.0, 'Mn': 2.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmvc-8898,\"{'Mg': 4.0, 'Ti': 12.0, 'O': 28.0}\",\"('Mg', 'O', 'Ti')\",OTHERS,True\nmp-1094218,\"{'La': 15.0, 'Mg': 3.0}\",\"('La', 'Mg')\",OTHERS,True\nmp-2061,\"{'Tl': 3.0, 'Th': 1.0}\",\"('Th', 'Tl')\",OTHERS,True\nmp-1114645,\"{'Rb': 2.0, 'Tl': 1.0, 'Hg': 1.0, 'Br': 6.0}\",\"('Br', 'Hg', 'Rb', 'Tl')\",OTHERS,True\nmp-569338,\"{'Yb': 4.0, 'Al': 4.0, 'Pd': 4.0}\",\"('Al', 'Pd', 'Yb')\",OTHERS,True\nmp-1186681,\"{'Pm': 1.0, 'Y': 1.0, 'Ir': 2.0}\",\"('Ir', 'Pm', 'Y')\",OTHERS,True\nmp-1221085,\"{'Na': 1.0, 'Ce': 1.0, 'Mo': 2.0, 'O': 8.0}\",\"('Ce', 'Mo', 'Na', 'O')\",OTHERS,True\nmp-1199784,\"{'Zr': 4.0, 'C': 12.0, 'N': 12.0, 'O': 48.0}\",\"('C', 'N', 'O', 'Zr')\",OTHERS,True\nmp-1355,\"{'Mn': 23.0, 'Y': 6.0}\",\"('Mn', 'Y')\",OTHERS,True\nmp-1221209,\"{'Na': 3.0, 'W': 2.0, 'Cl': 4.0, 'O': 4.0}\",\"('Cl', 'Na', 'O', 'W')\",OTHERS,True\nmp-862694,\"{'Al': 2.0, 'Ir': 1.0, 'Rh': 1.0}\",\"('Al', 'Ir', 'Rh')\",OTHERS,True\nmp-1039936,\"{'Na': 1.0, 'Ce': 1.0, 'Mg': 30.0, 'O': 32.0}\",\"('Ce', 'Mg', 'Na', 'O')\",OTHERS,True\nmp-1245109,\"{'Zn': 40.0, 'O': 40.0}\",\"('O', 'Zn')\",OTHERS,True\nmp-1227830,\"{'Ba': 2.0, 'Sr': 4.0, 'Sn': 6.0, 'O': 18.0}\",\"('Ba', 'O', 'Sn', 'Sr')\",OTHERS,True\nmp-1179597,\"{'Sb': 8.0, 'F': 48.0}\",\"('F', 'Sb')\",OTHERS,True\nmp-1099098,\"{'Ce': 1.0, 'Mg': 14.0, 'Bi': 1.0}\",\"('Bi', 'Ce', 'Mg')\",OTHERS,True\nmp-1100995,\"{'Tl': 1.0, 'Cu': 7.0, 'S': 4.0}\",\"('Cu', 'S', 'Tl')\",OTHERS,True\nmp-1226373,\"{'Cr': 12.0, 'Sb': 4.0, 'As': 8.0}\",\"('As', 'Cr', 'Sb')\",OTHERS,True\nmvc-940,\"{'Ba': 1.0, 'Ca': 1.0, 'Mn': 4.0, 'O': 8.0}\",\"('Ba', 'Ca', 'Mn', 'O')\",OTHERS,True\nmp-723406,\"{'La': 2.0, 'P': 6.0, 'H': 6.0, 'O': 20.0}\",\"('H', 'La', 'O', 'P')\",OTHERS,True\nmp-1190729,\"{'Ba': 4.0, 'Ge': 4.0, 'O': 16.0}\",\"('Ba', 'Ge', 'O')\",OTHERS,True\nmp-1093633,\"{'K': 1.0, 'Na': 2.0, 'As': 1.0}\",\"('As', 'K', 'Na')\",OTHERS,True\nmp-1147571,\"{'K': 1.0, 'Cu': 2.0, 'Ge': 1.0, 'S': 4.0}\",\"('Cu', 'Ge', 'K', 'S')\",OTHERS,True\nmp-1232324,\"{'Cd': 1.0, 'Pd': 2.0, 'O': 3.0}\",\"('Cd', 'O', 'Pd')\",OTHERS,True\nmp-414,\"{'Se': 1.0, 'Lu': 1.0}\",\"('Lu', 'Se')\",OTHERS,True\nmp-1029850,\"{'K': 30.0, 'Cr': 14.0, 'N': 38.0}\",\"('Cr', 'K', 'N')\",OTHERS,True\nmp-1186105,\"{'Na': 1.0, 'Ac': 3.0}\",\"('Ac', 'Na')\",OTHERS,True\nmp-628726,\"{'Sr': 2.0, 'Al': 4.0, 'Cl': 16.0}\",\"('Al', 'Cl', 'Sr')\",OTHERS,True\nmp-557082,\"{'H': 24.0, 'O': 12.0}\",\"('H', 'O')\",OTHERS,True\nmp-18256,\"{'B': 8.0, 'O': 20.0, 'Mg': 8.0}\",\"('B', 'Mg', 'O')\",OTHERS,True\nmp-1186581,\"{'Pm': 2.0, 'Ge': 6.0}\",\"('Ge', 'Pm')\",OTHERS,True\nmp-1101443,\"{'Nd': 2.0, 'Ta': 6.0, 'O': 18.0}\",\"('Nd', 'O', 'Ta')\",OTHERS,True\nmp-989517,\"{'Cs': 2.0, 'S': 1.0, 'Br': 1.0, 'Cl': 6.0}\",\"('Br', 'Cl', 'Cs', 'S')\",OTHERS,True\nmp-760336,\"{'Li': 15.0, 'Mn': 15.0, 'Co': 3.0, 'O': 36.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-583553,\"{'Mo': 24.0, 'Pb': 4.0, 'Cl': 56.0}\",\"('Cl', 'Mo', 'Pb')\",OTHERS,True\nmp-637249,\"{'Eu': 8.0, 'Li': 4.0, 'Ge': 12.0}\",\"('Eu', 'Ge', 'Li')\",OTHERS,True\nmp-776405,\"{'Li': 12.0, 'Sb': 4.0, 'S': 14.0}\",\"('Li', 'S', 'Sb')\",OTHERS,True\nmp-704203,\"{'Li': 4.0, 'V': 2.0, 'P': 8.0, 'O': 26.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-972877,\"{'Sc': 2.0, 'Al': 1.0, 'Ir': 1.0}\",\"('Al', 'Ir', 'Sc')\",OTHERS,True\nmp-1202899,\"{'Pt': 4.0, 'N': 24.0, 'O': 24.0}\",\"('N', 'O', 'Pt')\",OTHERS,True\nmp-982596,\"{'Tb': 1.0, 'Sc': 1.0}\",\"('Sc', 'Tb')\",OTHERS,True\nmp-510582,\"{'Nd': 4.0, 'Ni': 4.0, 'Sn': 4.0, 'H': 8.0}\",\"('H', 'Nd', 'Ni', 'Sn')\",OTHERS,True\nmp-685218,\"{'Fe': 24.0, 'Co': 12.0, 'O': 48.0}\",\"('Co', 'Fe', 'O')\",OTHERS,True\nmp-554824,\"{'La': 12.0, 'Ru': 4.0, 'O': 28.0}\",\"('La', 'O', 'Ru')\",OTHERS,True\nmp-1025346,\"{'Ga': 1.0, 'As': 1.0, 'Pd': 5.0}\",\"('As', 'Ga', 'Pd')\",OTHERS,True\nmp-867806,\"{'Li': 1.0, 'La': 2.0, 'Ir': 1.0}\",\"('Ir', 'La', 'Li')\",OTHERS,True\nmp-1112759,\"{'Cs': 2.0, 'K': 1.0, 'In': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'In', 'K')\",OTHERS,True\nmp-25838,\"{'Li': 2.0, 'O': 24.0, 'P': 6.0, 'Cr': 4.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,True\nmp-1198575,\"{'Rb': 18.0, 'La': 6.0, 'Cl': 36.0, 'O': 12.0}\",\"('Cl', 'La', 'O', 'Rb')\",OTHERS,True\nmp-15362,\"{'Li': 12.0, 'B': 12.0, 'O': 36.0, 'Nd': 8.0}\",\"('B', 'Li', 'Nd', 'O')\",OTHERS,True\nmp-1216465,\"{'V': 2.0, 'As': 4.0, 'H': 8.0, 'O': 18.0}\",\"('As', 'H', 'O', 'V')\",OTHERS,True\nmp-647265,\"{'V': 16.0, 'Bi': 56.0, 'O': 120.0}\",\"('Bi', 'O', 'V')\",OTHERS,True\nmp-673024,\"{'Li': 2.0, 'Sn': 8.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,True\nmp-1218050,\"{'Sr': 2.0, 'Pr': 2.0, 'Ga': 6.0, 'O': 14.0}\",\"('Ga', 'O', 'Pr', 'Sr')\",OTHERS,True\nmp-1202122,\"{'Pd': 3.0, 'N': 16.0, 'O': 16.0}\",\"('N', 'O', 'Pd')\",OTHERS,True\nmvc-1338,\"{'Ca': 4.0, 'Cr': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Ca', 'Cr', 'O', 'P')\",OTHERS,True\nmp-865144,\"{'Cd': 2.0, 'Au': 6.0}\",\"('Au', 'Cd')\",OTHERS,True\nmp-756600,\"{'Li': 7.0, 'Mn': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,True\nmp-1040512,\"{'Nb': 3.0, 'Si': 1.0, 'O': 10.0}\",\"('Nb', 'O', 'Si')\",OTHERS,True\nmp-1186198,\"{'Na': 1.0, 'Zn': 1.0, 'O': 3.0}\",\"('Na', 'O', 'Zn')\",OTHERS,True\nmp-1076534,\"{'Rb': 1.0, 'Ta': 1.0, 'O': 3.0}\",\"('O', 'Rb', 'Ta')\",OTHERS,True\nmp-1199244,\"{'Cs': 4.0, 'Cu': 4.0, 'S': 24.0}\",\"('Cs', 'Cu', 'S')\",OTHERS,True\nmp-1184390,\"{'Gd': 2.0, 'Tl': 1.0, 'Zn': 1.0}\",\"('Gd', 'Tl', 'Zn')\",OTHERS,True\nmp-770785,\"{'Na': 12.0, 'Mn': 4.0, 'B': 8.0, 'As': 2.0, 'O': 32.0}\",\"('As', 'B', 'Mn', 'Na', 'O')\",OTHERS,True\nmp-1246233,\"{'Na': 24.0, 'Ga': 8.0, 'N': 16.0}\",\"('Ga', 'N', 'Na')\",OTHERS,True\nmp-1219019,\"{'Sm': 1.0, 'Ga': 3.0, 'Pt': 1.0}\",\"('Ga', 'Pt', 'Sm')\",OTHERS,True\nmp-1208977,\"{'Sm': 12.0, 'Si': 8.0, 'Rh': 8.0}\",\"('Rh', 'Si', 'Sm')\",OTHERS,True\nmp-571660,\"{'Cd': 12.0, 'I': 24.0}\",\"('Cd', 'I')\",OTHERS,True\nmp-5510,\"{'Si': 2.0, 'Au': 2.0, 'U': 1.0}\",\"('Au', 'Si', 'U')\",OTHERS,True\nmp-1177102,\"{'Li': 5.0, 'Fe': 1.0, 'S': 4.0}\",\"('Fe', 'Li', 'S')\",OTHERS,True\nmp-758309,\"{'Li': 4.0, 'Co': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,True\nmp-1094334,\"{'Sr': 2.0, 'Mg': 4.0}\",\"('Mg', 'Sr')\",OTHERS,True\nmp-540639,\"{'Fe': 1.0, 'S': 4.0, 'N': 6.0, 'C': 4.0, 'H': 8.0}\",\"('C', 'Fe', 'H', 'N', 'S')\",OTHERS,True\nmp-569299,\"{'Be': 4.0, 'B': 8.0, 'C': 8.0}\",\"('B', 'Be', 'C')\",OTHERS,True\nmp-977128,\"{'Na': 1.0, 'Ru': 3.0}\",\"('Na', 'Ru')\",OTHERS,True\nmp-1225216,\"{'Fe': 2.0, 'Co': 2.0, 'Bi': 4.0, 'As': 4.0, 'O': 24.0}\",\"('As', 'Bi', 'Co', 'Fe', 'O')\",OTHERS,True\nmp-1199772,\"{'Sb': 16.0, 'Xe': 8.0, 'Cl': 8.0, 'F': 88.0}\",\"('Cl', 'F', 'Sb', 'Xe')\",OTHERS,True\nmp-740750,\"{'Na': 8.0, 'P': 8.0, 'H': 12.0, 'O': 30.0}\",\"('H', 'Na', 'O', 'P')\",OTHERS,True\nmp-761105,\"{'Li': 2.0, 'Co': 4.0, 'O': 2.0, 'F': 6.0}\",\"('Co', 'F', 'Li', 'O')\",OTHERS,True\nmp-562987,\"{'V': 1.0, 'Cu': 1.0, 'O': 3.0}\",\"('Cu', 'O', 'V')\",OTHERS,True\nmp-567368,\"{'Zr': 24.0, 'V': 16.0, 'Ga': 32.0}\",\"('Ga', 'V', 'Zr')\",OTHERS,True\nmvc-4147,\"{'Mg': 4.0, 'Ta': 2.0, 'Cu': 2.0, 'O': 12.0}\",\"('Cu', 'Mg', 'O', 'Ta')\",OTHERS,True\nmp-1227560,\"{'Ce': 4.0, 'Ga': 2.0, 'S': 5.0, 'O': 4.0}\",\"('Ce', 'Ga', 'O', 'S')\",OTHERS,True\nmp-1185990,\"{'Mg': 1.0, 'Tl': 3.0}\",\"('Mg', 'Tl')\",OTHERS,True\nmp-1112047,\"{'K': 2.0, 'Cu': 1.0, 'Mo': 1.0, 'Br': 6.0}\",\"('Br', 'Cu', 'K', 'Mo')\",OTHERS,True\nmp-1210173,\"{'Pr': 12.0, 'Co': 4.0, 'Br': 12.0}\",\"('Br', 'Co', 'Pr')\",OTHERS,True\nmp-981247,\"{'Zn': 7.0, 'Sb': 8.0, 'Ru': 9.0}\",\"('Ru', 'Sb', 'Zn')\",OTHERS,True\nmp-4300,\"{'O': 7.0, 'Si': 2.0, 'Yb': 2.0}\",\"('O', 'Si', 'Yb')\",OTHERS,True\nmp-1100617,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1228596,\"{'Al': 1.0, 'H': 12.0, 'C': 4.0, 'N': 1.0, 'F': 4.0}\",\"('Al', 'C', 'F', 'H', 'N')\",OTHERS,True\nmp-754693,\"{'Lu': 2.0, 'Bi': 6.0, 'O': 12.0}\",\"('Bi', 'Lu', 'O')\",OTHERS,True\nmp-2496,\"{'Sn': 46.0, 'Cs': 8.0}\",\"('Cs', 'Sn')\",OTHERS,True\nmp-1074941,\"{'Mg': 6.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-23541,\"{'K': 2.0, 'Br': 10.0, 'Sn': 4.0}\",\"('Br', 'K', 'Sn')\",OTHERS,True\nmp-975199,\"{'Rb': 1.0, 'Sr': 3.0}\",\"('Rb', 'Sr')\",OTHERS,True\nmp-1212246,\"{'Ho': 10.0, 'In': 8.0, 'Pt': 4.0}\",\"('Ho', 'In', 'Pt')\",OTHERS,True\nmp-1027335,\"{'Mo': 2.0, 'W': 2.0, 'S': 8.0}\",\"('Mo', 'S', 'W')\",OTHERS,True\nmp-706616,\"{'Zn': 4.0, 'H': 32.0, 'O': 16.0, 'F': 8.0}\",\"('F', 'H', 'O', 'Zn')\",OTHERS,True\nmp-769544,\"{'Mg': 1.0, 'Cr': 3.0, 'Se': 2.0, 'S': 4.0, 'O': 24.0}\",\"('Cr', 'Mg', 'O', 'S', 'Se')\",OTHERS,True\nmp-1209887,\"{'Nb': 4.0, 'Fe': 4.0, 'Si': 4.0}\",\"('Fe', 'Nb', 'Si')\",OTHERS,True\nmp-1186906,\"{'Rb': 3.0, 'Gd': 1.0}\",\"('Gd', 'Rb')\",OTHERS,True\nmp-1212910,\"{'Fe': 2.0, 'Bi': 12.0, 'P': 4.0, 'O': 28.0, 'F': 4.0}\",\"('Bi', 'F', 'Fe', 'O', 'P')\",OTHERS,True\nmp-761212,\"{'Li': 2.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,True\nmvc-2643,\"{'Zn': 2.0, 'W': 10.0, 'O': 14.0}\",\"('O', 'W', 'Zn')\",OTHERS,True\nmp-1198558,\"{'Cd': 8.0, 'C': 8.0, 'O': 24.0}\",\"('C', 'Cd', 'O')\",OTHERS,True\nmp-773138,\"{'Na': 2.0, 'Cr': 2.0, 'As': 2.0, 'C': 2.0, 'O': 14.0}\",\"('As', 'C', 'Cr', 'Na', 'O')\",OTHERS,True\nmp-23310,\"{'Yb': 8.0, 'Bi': 6.0}\",\"('Bi', 'Yb')\",OTHERS,True\nmp-756869,\"{'Tb': 2.0, 'K': 4.0, 'O': 6.0}\",\"('K', 'O', 'Tb')\",OTHERS,True\nmp-559347,\"{'Si': 16.0, 'O': 32.0}\",\"('O', 'Si')\",OTHERS,True\nmp-581476,\"{'Zn': 12.0, 'S': 12.0}\",\"('S', 'Zn')\",OTHERS,True\nmp-1224906,\"{'Ge': 4.0, 'Pb': 10.0, 'S': 2.0, 'O': 24.0}\",\"('Ge', 'O', 'Pb', 'S')\",OTHERS,True\nmp-1215422,\"{'Zr': 2.0, 'S': 1.0, 'O': 3.0}\",\"('O', 'S', 'Zr')\",OTHERS,True\nmp-753630,\"{'Li': 9.0, 'V': 6.0, 'P': 12.0, 'H': 6.0, 'O': 48.0}\",\"('H', 'Li', 'O', 'P', 'V')\",OTHERS,True\nmp-17439,\"{'O': 24.0, 'P': 8.0, 'K': 2.0, 'Sm': 2.0}\",\"('K', 'O', 'P', 'Sm')\",OTHERS,True\nmp-780843,\"{'Li': 4.0, 'Fe': 2.0, 'Ni': 3.0, 'Sn': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Li', 'Ni', 'O', 'P', 'Sn')\",OTHERS,True\nmp-1212582,\"{'Eu': 4.0, 'Al': 6.0, 'O': 16.0}\",\"('Al', 'Eu', 'O')\",OTHERS,True\nmp-28837,\"{'Cl': 24.0, 'K': 12.0, 'Rh': 4.0}\",\"('Cl', 'K', 'Rh')\",OTHERS,True\nmp-532510,\"{'Al': 28.0, 'Ni': 14.0, 'O': 56.0}\",\"('Al', 'Ni', 'O')\",OTHERS,True\nmp-568793,\"{'Ca': 28.0, 'Ga': 11.0}\",\"('Ca', 'Ga')\",OTHERS,True\nmp-39888,\"{'Nd': 1.0, 'Ti': 3.0, 'Fe': 1.0, 'Cu': 3.0, 'O': 12.0}\",\"('Cu', 'Fe', 'Nd', 'O', 'Ti')\",OTHERS,True\nmp-772334,\"{'Li': 3.0, 'Fe': 3.0, 'Te': 1.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Te')\",OTHERS,True\nmp-1199106,\"{'Tm': 20.0, 'Pt': 16.0}\",\"('Pt', 'Tm')\",OTHERS,True\nmp-567313,{'Te': 3.0},\"('Te',)\",OTHERS,True\nmp-12866,\"{'O': 6.0, 'Sr': 2.0, 'Sn': 2.0}\",\"('O', 'Sn', 'Sr')\",OTHERS,True\nmp-755087,\"{'Li': 3.0, 'Fe': 1.0, 'F': 6.0}\",\"('F', 'Fe', 'Li')\",OTHERS,True\nmp-1184072,\"{'Dy': 2.0, 'Pd': 1.0, 'Rh': 1.0}\",\"('Dy', 'Pd', 'Rh')\",OTHERS,True\nmp-26134,\"{'Cr': 4.0, 'P': 10.0, 'O': 32.0}\",\"('Cr', 'O', 'P')\",OTHERS,True\nmp-2331,\"{'B': 4.0, 'Mo': 2.0}\",\"('B', 'Mo')\",OTHERS,True\nmp-1217053,\"{'U': 1.0, 'Fe': 10.0, 'Si': 2.0}\",\"('Fe', 'Si', 'U')\",OTHERS,True\nmp-769253,\"{'Dy': 2.0, 'Se': 1.0, 'O': 2.0}\",\"('Dy', 'O', 'Se')\",OTHERS,True\nmp-1078684,\"{'Er': 3.0, 'Cd': 3.0, 'Ga': 3.0}\",\"('Cd', 'Er', 'Ga')\",OTHERS,True\nmp-567858,\"{'Dy': 24.0, 'C': 12.0, 'I': 34.0}\",\"('C', 'Dy', 'I')\",OTHERS,True\nmp-1099903,\"{'K': 20.0, 'Na': 12.0, 'Ta': 24.0, 'Nb': 8.0, 'O': 80.0}\",\"('K', 'Na', 'Nb', 'O', 'Ta')\",OTHERS,True\nmp-1246529,\"{'Fe': 16.0, 'Ge': 16.0, 'N': 32.0}\",\"('Fe', 'Ge', 'N')\",OTHERS,True\nmp-766079,\"{'Sr': 8.0, 'Cu': 8.0, 'O': 17.0}\",\"('Cu', 'O', 'Sr')\",OTHERS,True\nmp-1220481,\"{'Nb': 4.0, 'Al': 1.0}\",\"('Al', 'Nb')\",OTHERS,True\nmp-555202,\"{'K': 2.0, 'Te': 2.0, 'H': 2.0, 'O': 2.0, 'F': 8.0}\",\"('F', 'H', 'K', 'O', 'Te')\",OTHERS,True\nmp-1211077,\"{'Li': 12.0, 'I': 6.0, 'O': 36.0}\",\"('I', 'Li', 'O')\",OTHERS,True\nmp-1212611,\"{'Hf': 4.0, 'As': 8.0, 'O': 36.0}\",\"('As', 'Hf', 'O')\",OTHERS,True\nmp-1219538,\"{'Sb': 10.0, 'O': 28.0}\",\"('O', 'Sb')\",OTHERS,True\nmp-979952,\"{'Yb': 3.0, 'Ti': 1.0}\",\"('Ti', 'Yb')\",OTHERS,True\nmp-1207397,\"{'Zn': 1.0, 'Os': 2.0, 'N': 4.0, 'O': 8.0}\",\"('N', 'O', 'Os', 'Zn')\",OTHERS,True\nmp-1185774,\"{'Mg': 4.0, 'Sc': 2.0}\",\"('Mg', 'Sc')\",OTHERS,True\nmp-1245359,\"{'In': 20.0, 'Si': 12.0, 'N': 36.0}\",\"('In', 'N', 'Si')\",OTHERS,True\nmp-5151,\"{'S': 12.0, 'Ge': 2.0, 'Cd': 8.0}\",\"('Cd', 'Ge', 'S')\",OTHERS,True\nmp-975337,\"{'Rb': 1.0, 'F': 3.0}\",\"('F', 'Rb')\",OTHERS,True\nmp-1220161,\"{'Nd': 2.0, 'Al': 2.0, 'Si': 2.0}\",\"('Al', 'Nd', 'Si')\",OTHERS,True\nmp-504549,\"{'U': 4.0, 'Fe': 4.0, 'O': 16.0}\",\"('Fe', 'O', 'U')\",OTHERS,True\nmp-1099703,\"{'Sr': 6.0, 'Ca': 2.0, 'Ti': 6.0, 'Mn': 2.0, 'O': 24.0}\",\"('Ca', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,True\nmp-761011,\"{'Li': 6.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-1025028,\"{'Pr': 2.0, 'Si': 2.0, 'Ag': 2.0}\",\"('Ag', 'Pr', 'Si')\",OTHERS,True\nmp-1208914,\"{'Sm': 6.0, 'Al': 24.0, 'Ru': 8.0}\",\"('Al', 'Ru', 'Sm')\",OTHERS,True\nmp-10746,\"{'Mg': 4.0, 'Si': 2.0, 'Cu': 6.0}\",\"('Cu', 'Mg', 'Si')\",OTHERS,True\nmp-556799,\"{'Li': 12.0, 'In': 4.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'In', 'Li', 'O')\",OTHERS,True\nmp-776050,\"{'Li': 2.0, 'Fe': 4.0, 'F': 18.0}\",\"('F', 'Fe', 'Li')\",OTHERS,True\nmp-680168,\"{'K': 8.0, 'Re': 12.0, 'C': 8.0, 'Se': 20.0, 'N': 8.0}\",\"('C', 'K', 'N', 'Re', 'Se')\",OTHERS,True\nmp-3062,\"{'N': 2.0, 'S': 3.0, 'Sm': 4.0}\",\"('N', 'S', 'Sm')\",OTHERS,True\nmp-698396,\"{'Cu': 2.0, 'H': 8.0, 'C': 4.0, 'N': 2.0, 'Cl': 6.0, 'O': 2.0}\",\"('C', 'Cl', 'Cu', 'H', 'N', 'O')\",OTHERS,True\nmp-754557,\"{'Eu': 2.0, 'Y': 4.0, 'O': 8.0}\",\"('Eu', 'O', 'Y')\",OTHERS,True\nmp-1185693,\"{'Mg': 1.0, 'B': 1.0, 'O': 3.0}\",\"('B', 'Mg', 'O')\",OTHERS,True\nmp-778080,\"{'Ba': 2.0, 'Y': 6.0, 'F': 22.0}\",\"('Ba', 'F', 'Y')\",OTHERS,True\nmp-738686,\"{'Sb': 2.0, 'H': 48.0, 'C': 12.0, 'N': 6.0, 'Cl': 12.0}\",\"('C', 'Cl', 'H', 'N', 'Sb')\",OTHERS,True\nmp-766205,\"{'Sr': 1.0, 'Li': 1.0, 'La': 15.0, 'Co': 4.0, 'O': 32.0}\",\"('Co', 'La', 'Li', 'O', 'Sr')\",OTHERS,True\nmp-1223863,\"{'In': 1.0, 'Cu': 1.0, 'Te': 2.0}\",\"('Cu', 'In', 'Te')\",OTHERS,True\nmp-697313,\"{'Al': 24.0, 'Tl': 10.0, 'Cd': 7.0, 'Si': 24.0, 'O': 96.0}\",\"('Al', 'Cd', 'O', 'Si', 'Tl')\",OTHERS,True\nmp-1187237,\"{'Sr': 6.0, 'Ce': 2.0}\",\"('Ce', 'Sr')\",OTHERS,True\nmp-763345,\"{'Li': 8.0, 'V': 4.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,True\nmvc-6576,\"{'Ca': 2.0, 'Sn': 4.0, 'O': 8.0}\",\"('Ca', 'O', 'Sn')\",OTHERS,True\nmp-561942,\"{'Cs': 3.0, 'Ta': 1.0, 'O': 8.0}\",\"('Cs', 'O', 'Ta')\",OTHERS,True\nmp-1222633,\"{'Mg': 4.0, 'Fe': 1.0, 'Cl': 1.0, 'O': 13.0}\",\"('Cl', 'Fe', 'Mg', 'O')\",OTHERS,True\nmp-867271,\"{'Be': 2.0, 'Co': 1.0, 'Ni': 1.0}\",\"('Be', 'Co', 'Ni')\",OTHERS,True\nmvc-513,\"{'Ba': 1.0, 'Zn': 1.0, 'Cu': 4.0, 'O': 8.0}\",\"('Ba', 'Cu', 'O', 'Zn')\",OTHERS,True\nmp-554810,\"{'Ba': 4.0, 'V': 2.0, 'P': 4.0, 'O': 18.0}\",\"('Ba', 'O', 'P', 'V')\",OTHERS,True\nmp-1100068,\"{'Ba': 4.0, 'Sr': 28.0, 'Co': 20.0, 'Cu': 12.0, 'O': 80.0}\",\"('Ba', 'Co', 'Cu', 'O', 'Sr')\",OTHERS,True\nmp-1238596,\"{'Mg': 2.0, 'V': 10.0, 'H': 40.0, 'N': 2.0, 'O': 44.0}\",\"('H', 'Mg', 'N', 'O', 'V')\",OTHERS,True\nmp-21281,\"{'Mn': 2.0, 'Ge': 2.0, 'Th': 1.0}\",\"('Ge', 'Mn', 'Th')\",OTHERS,True\nmp-770400,\"{'Li': 8.0, 'Al': 4.0, 'Ni': 4.0, 'O': 16.0}\",\"('Al', 'Li', 'Ni', 'O')\",OTHERS,True\nmp-685216,\"{'Nb': 24.0, 'Tl': 2.0, 'Te': 32.0}\",\"('Nb', 'Te', 'Tl')\",OTHERS,True\nmp-31157,\"{'N': 1.0, 'Ca': 3.0, 'Sb': 1.0}\",\"('Ca', 'N', 'Sb')\",OTHERS,True\nmp-1221080,\"{'Na': 1.0, 'Ce': 1.0, 'Ti': 2.0, 'O': 6.0}\",\"('Ce', 'Na', 'O', 'Ti')\",OTHERS,True\nmp-1208022,\"{'Tl': 1.0, 'S': 2.0, 'N': 1.0, 'O': 8.0}\",\"('N', 'O', 'S', 'Tl')\",OTHERS,True\nmp-1018687,\"{'Er': 2.0, 'S': 4.0}\",\"('Er', 'S')\",OTHERS,True\nmp-1219596,\"{'Rb': 5.0, 'Bi': 4.0}\",\"('Bi', 'Rb')\",OTHERS,True\nmp-1237926,\"{'Lu': 4.0, 'Mg': 4.0, 'Se': 12.0}\",\"('Lu', 'Mg', 'Se')\",OTHERS,True\nmp-777676,\"{'Li': 4.0, 'V': 4.0, 'F': 12.0}\",\"('F', 'Li', 'V')\",OTHERS,True\nmp-12221,\"{'O': 16.0, 'Ca': 4.0, 'Te': 4.0}\",\"('Ca', 'O', 'Te')\",OTHERS,True\nmp-1212003,\"{'La': 12.0, 'Fe': 20.0, 'O': 48.0}\",\"('Fe', 'La', 'O')\",OTHERS,True\nmp-1176989,\"{'Li': 12.0, 'Mn': 2.0, 'V': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,True\nmp-22753,\"{'C': 4.0, 'Fe': 2.0, 'U': 2.0}\",\"('C', 'Fe', 'U')\",OTHERS,True\nmp-756780,\"{'Ti': 3.0, 'Mn': 3.0, 'Cr': 2.0, 'O': 16.0}\",\"('Cr', 'Mn', 'O', 'Ti')\",OTHERS,True\nmp-3804,\"{'P': 2.0, 'Sr': 1.0, 'Ru': 2.0}\",\"('P', 'Ru', 'Sr')\",OTHERS,True\nmp-1190833,\"{'Nd': 2.0, 'Si': 4.0, 'Ni': 18.0}\",\"('Nd', 'Ni', 'Si')\",OTHERS,True\nmp-653248,\"{'Cr': 24.0, 'B': 56.0, 'Cl': 8.0, 'O': 104.0}\",\"('B', 'Cl', 'Cr', 'O')\",OTHERS,True\nmp-705411,\"{'W': 6.0, 'O': 18.0}\",\"('O', 'W')\",OTHERS,True\nmp-1220084,\"{'Nd': 2.0, 'Ti': 2.0, 'Cd': 2.0, 'Sb': 2.0, 'O': 14.0}\",\"('Cd', 'Nd', 'O', 'Sb', 'Ti')\",OTHERS,True\nmp-849636,\"{'Sr': 4.0, 'Ta': 4.0, 'N': 4.0, 'O': 8.0}\",\"('N', 'O', 'Sr', 'Ta')\",OTHERS,True\nmp-19166,\"{'O': 12.0, 'Ni': 2.0, 'Sr': 6.0, 'Pt': 2.0}\",\"('Ni', 'O', 'Pt', 'Sr')\",OTHERS,True\nmp-1093897,\"{'Li': 2.0, 'La': 1.0, 'Al': 1.0}\",\"('Al', 'La', 'Li')\",OTHERS,True\nmp-707274,\"{'H': 26.0, 'Se': 4.0, 'N': 6.0, 'O': 16.0}\",\"('H', 'N', 'O', 'Se')\",OTHERS,True\nmp-18973,\"{'O': 20.0, 'Co': 4.0, 'Se': 8.0}\",\"('Co', 'O', 'Se')\",OTHERS,True\nmp-557364,\"{'Cd': 8.0, 'B': 16.0, 'F': 64.0}\",\"('B', 'Cd', 'F')\",OTHERS,True\nmp-540592,\"{'Fe': 8.0, 'Te': 12.0, 'O': 36.0}\",\"('Fe', 'O', 'Te')\",OTHERS,True\nmp-5568,\"{'B': 4.0, 'Co': 11.0, 'Nd': 3.0}\",\"('B', 'Co', 'Nd')\",OTHERS,True\nmp-19435,\"{'O': 8.0, 'Co': 2.0, 'Mo': 2.0}\",\"('Co', 'Mo', 'O')\",OTHERS,True\nmp-1227989,\"{'Ba': 1.0, 'Sr': 1.0, 'Al': 20.0, 'Cu': 2.0, 'O': 34.0}\",\"('Al', 'Ba', 'Cu', 'O', 'Sr')\",OTHERS,True\nmp-504578,\"{'Mg': 4.0, 'Cr': 4.0, 'O': 16.0}\",\"('Cr', 'Mg', 'O')\",OTHERS,True\nmp-1178644,\"{'Zn': 1.0, 'Ga': 1.0, 'Cu': 3.0, 'Se': 4.0}\",\"('Cu', 'Ga', 'Se', 'Zn')\",OTHERS,True\nmp-28980,\"{'K': 12.0, 'Bi': 4.0, 'Se': 12.0}\",\"('Bi', 'K', 'Se')\",OTHERS,True\nmp-1197535,\"{'Y': 8.0, 'Nb': 12.0, 'Ge': 16.0}\",\"('Ge', 'Nb', 'Y')\",OTHERS,True\nmp-540258,\"{'O': 24.0, 'P': 8.0, 'Ti': 2.0}\",\"('O', 'P', 'Ti')\",OTHERS,True\nmp-989643,\"{'La': 2.0, 'Co': 2.0, 'N': 6.0}\",\"('Co', 'La', 'N')\",OTHERS,True\nmp-752900,\"{'Li': 4.0, 'Fe': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,True\nmp-33320,\"{'Ca': 4.0, 'U': 4.0, 'S': 8.0}\",\"('Ca', 'S', 'U')\",OTHERS,True\nmp-1174359,\"{'Li': 8.0, 'Mn': 6.0, 'O': 14.0}\",\"('Li', 'Mn', 'O')\",OTHERS,True\nmp-1207174,\"{'Li': 1.0, 'Al': 2.0, 'Ge': 1.0}\",\"('Al', 'Ge', 'Li')\",OTHERS,True\nmp-1178290,\"{'Fe': 8.0, 'O': 2.0, 'F': 14.0}\",\"('F', 'Fe', 'O')\",OTHERS,True\nmp-672654,\"{'Zr': 6.0, 'Co': 16.0, 'Ge': 7.0}\",\"('Co', 'Ge', 'Zr')\",OTHERS,True\nmp-567353,\"{'Mn': 2.0, 'Si': 2.0, 'Ni': 2.0}\",\"('Mn', 'Ni', 'Si')\",OTHERS,True\nmp-1198694,\"{'Cs': 4.0, 'V': 4.0, 'P': 4.0, 'O': 20.0}\",\"('Cs', 'O', 'P', 'V')\",OTHERS,True\nmp-1009113,\"{'Ho': 1.0, 'Hg': 2.0}\",\"('Hg', 'Ho')\",OTHERS,True\nmp-1175674,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-19911,\"{'Co': 1.0, 'In': 5.0, 'Tm': 1.0}\",\"('Co', 'In', 'Tm')\",OTHERS,True\nmp-1207835,\"{'Tm': 6.0, 'Sb': 2.0, 'O': 14.0}\",\"('O', 'Sb', 'Tm')\",OTHERS,True\nmp-1208811,\"{'Sr': 2.0, 'Lu': 1.0, 'Cu': 2.0, 'Bi': 2.0, 'O': 8.0}\",\"('Bi', 'Cu', 'Lu', 'O', 'Sr')\",OTHERS,True\nmp-562762,\"{'Ba': 4.0, 'Co': 2.0, 'Se': 4.0, 'Cl': 4.0, 'O': 12.0}\",\"('Ba', 'Cl', 'Co', 'O', 'Se')\",OTHERS,True\nmp-1208733,\"{'Sr': 2.0, 'Ta': 1.0, 'Co': 1.0, 'O': 6.0}\",\"('Co', 'O', 'Sr', 'Ta')\",OTHERS,True\nmp-1189703,\"{'Yb': 4.0, 'Ge': 8.0, 'Pd': 4.0}\",\"('Ge', 'Pd', 'Yb')\",OTHERS,True\nmp-1175349,\"{'Li': 7.0, 'Mn': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,True\nmp-1025271,\"{'Al': 1.0, 'P': 1.0, 'Pt': 5.0}\",\"('Al', 'P', 'Pt')\",OTHERS,True\nmp-29154,\"{'P': 2.0, 'Co': 2.0, 'Hf': 4.0}\",\"('Co', 'Hf', 'P')\",OTHERS,True\nmp-1193044,\"{'Bi': 2.0, 'P': 6.0, 'N': 2.0, 'O': 20.0}\",\"('Bi', 'N', 'O', 'P')\",OTHERS,True\nmp-744576,\"{'Co': 4.0, 'H': 32.0, 'S': 4.0, 'O': 32.0}\",\"('Co', 'H', 'O', 'S')\",OTHERS,True\nmp-13938,\"{'O': 6.0, 'Sr': 2.0, 'Dy': 1.0, 'Re': 1.0}\",\"('Dy', 'O', 'Re', 'Sr')\",OTHERS,True\nmp-1204722,\"{'Ba': 4.0, 'Zr': 2.0, 'C': 16.0, 'O': 38.0}\",\"('Ba', 'C', 'O', 'Zr')\",OTHERS,True\nmp-763560,\"{'Li': 1.0, 'Mn': 2.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-21479,\"{'Rh': 1.0, 'In': 5.0, 'La': 1.0}\",\"('In', 'La', 'Rh')\",OTHERS,True\nmp-569098,\"{'Rb': 4.0, 'Na': 44.0, 'W': 16.0, 'N': 48.0}\",\"('N', 'Na', 'Rb', 'W')\",OTHERS,True\nmp-976135,\"{'Pr': 1.0, 'Er': 3.0}\",\"('Er', 'Pr')\",OTHERS,True\nmp-752428,\"{'Rb': 8.0, 'Pr': 4.0, 'O': 12.0}\",\"('O', 'Pr', 'Rb')\",OTHERS,True\nmp-773438,\"{'Li': 10.0, 'Cu': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,True\nmp-22998,\"{'S': 2.0, 'Cr': 2.0, 'Br': 2.0}\",\"('Br', 'Cr', 'S')\",OTHERS,True\nmp-568225,\"{'Tb': 4.0, 'B': 16.0}\",\"('B', 'Tb')\",OTHERS,True\nmp-1101228,\"{'V': 4.0, 'F': 18.0}\",\"('F', 'V')\",OTHERS,True\nmp-849589,\"{'Li': 5.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-204,\"{'Fe': 4.0, 'Ce': 2.0}\",\"('Ce', 'Fe')\",OTHERS,True\nmp-851103,\"{'Li': 4.0, 'V': 4.0, 'P': 8.0, 'H': 8.0, 'O': 32.0}\",\"('H', 'Li', 'O', 'P', 'V')\",OTHERS,True\nmp-1198901,\"{'Cs': 4.0, 'Cu': 2.0, 'H': 16.0, 'Se': 4.0, 'O': 24.0}\",\"('Cs', 'Cu', 'H', 'O', 'Se')\",OTHERS,True\nmp-1102476,\"{'Tb': 4.0, 'As': 4.0, 'Se': 4.0}\",\"('As', 'Se', 'Tb')\",OTHERS,True\nmp-1209123,\"{'Rh': 4.0, 'W': 2.0, 'O': 12.0}\",\"('O', 'Rh', 'W')\",OTHERS,True\nmp-1211067,\"{'Li': 2.0, 'Tm': 4.0, 'Br': 10.0}\",\"('Br', 'Li', 'Tm')\",OTHERS,True\nmp-569273,\"{'Mg': 88.0, 'Ir': 14.0}\",\"('Ir', 'Mg')\",OTHERS,True\nmp-5259,\"{'F': 8.0, 'Al': 2.0, 'Rb': 2.0}\",\"('Al', 'F', 'Rb')\",OTHERS,True\nmp-11644,\"{'Li': 4.0, 'Ca': 2.0}\",\"('Ca', 'Li')\",OTHERS,True\nmp-1246153,\"{'Ti': 6.0, 'N': 4.0}\",\"('N', 'Ti')\",OTHERS,True\nmp-757163,\"{'Li': 1.0, 'V': 1.0, 'F': 6.0}\",\"('F', 'Li', 'V')\",OTHERS,True\nmp-28177,\"{'Na': 2.0, 'Cl': 12.0, 'Sb': 2.0}\",\"('Cl', 'Na', 'Sb')\",OTHERS,True\nmp-756074,\"{'Bi': 4.0, 'P': 2.0, 'O': 12.0}\",\"('Bi', 'O', 'P')\",OTHERS,True\nmp-1189145,\"{'Dy': 4.0, 'Si': 8.0, 'Mo': 6.0}\",\"('Dy', 'Mo', 'Si')\",OTHERS,True\nmp-1104602,\"{'Cu': 2.0, 'Ag': 1.0, 'S': 2.0, 'O': 10.0}\",\"('Ag', 'Cu', 'O', 'S')\",OTHERS,True\nmp-1210034,\"{'Nd': 12.0, 'Ti': 4.0, 'Cl': 20.0, 'O': 16.0}\",\"('Cl', 'Nd', 'O', 'Ti')\",OTHERS,True\nmp-1224293,\"{'Ho': 4.0, 'Fe': 2.0, 'Mo': 2.0, 'O': 14.0}\",\"('Fe', 'Ho', 'Mo', 'O')\",OTHERS,True\nmp-1211602,\"{'Li': 4.0, 'Lu': 16.0, 'Ge': 16.0}\",\"('Ge', 'Li', 'Lu')\",OTHERS,True\nmp-3222,\"{'O': 14.0, 'Ru': 2.0, 'La': 6.0}\",\"('La', 'O', 'Ru')\",OTHERS,True\nmp-1177550,\"{'Li': 8.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-14763,\"{'N': 6.0, 'Ca': 6.0, 'Mn': 2.0}\",\"('Ca', 'Mn', 'N')\",OTHERS,True\nmp-1179693,\"{'Rb': 2.0, 'Mn': 2.0, 'As': 2.0}\",\"('As', 'Mn', 'Rb')\",OTHERS,True\nmp-754054,\"{'Li': 2.0, 'V': 1.0, 'Cr': 1.0, 'O': 4.0}\",\"('Cr', 'Li', 'O', 'V')\",OTHERS,True\nmp-1211839,\"{'K': 2.0, 'Al': 4.0, 'Si': 8.0, 'H': 4.0, 'O': 24.0}\",\"('Al', 'H', 'K', 'O', 'Si')\",OTHERS,True\nmp-758542,\"{'Li': 24.0, 'Cu': 24.0, 'P': 24.0, 'O': 96.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,True\nmp-754447,\"{'Cd': 6.0, 'Co': 5.0, 'O': 15.0}\",\"('Cd', 'Co', 'O')\",OTHERS,True\nmp-2776,\"{'Ga': 2.0, 'Au': 1.0}\",\"('Au', 'Ga')\",OTHERS,True\nmp-1214847,\"{'B': 8.0, 'H': 16.0, 'O': 16.0}\",\"('B', 'H', 'O')\",OTHERS,True\nmp-1199853,\"{'In': 2.0, 'S': 6.0, 'N': 6.0, 'O': 24.0}\",\"('In', 'N', 'O', 'S')\",OTHERS,True\nmp-759232,\"{'Li': 1.0, 'Mn': 1.0, 'V': 1.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,True\nmvc-7769,\"{'Mg': 2.0, 'Ni': 4.0, 'O': 8.0}\",\"('Mg', 'Ni', 'O')\",OTHERS,True\nmp-17165,\"{'C': 12.0, 'N': 12.0, 'Na': 2.0, 'Cr': 2.0, 'Cs': 4.0}\",\"('C', 'Cr', 'Cs', 'N', 'Na')\",OTHERS,True\nmp-772650,\"{'Li': 8.0, 'Cr': 20.0, 'O': 48.0}\",\"('Cr', 'Li', 'O')\",OTHERS,True\nmp-862934,\"{'Pm': 1.0, 'Li': 2.0, 'Tl': 1.0}\",\"('Li', 'Pm', 'Tl')\",OTHERS,True\nmp-20061,\"{'Ge': 3.0, 'Pt': 6.0}\",\"('Ge', 'Pt')\",OTHERS,True\nmvc-12291,\"{'Ca': 2.0, 'V': 4.0, 'Ni': 4.0, 'P': 8.0, 'O': 36.0}\",\"('Ca', 'Ni', 'O', 'P', 'V')\",OTHERS,True\nmp-766441,\"{'Li': 4.0, 'V': 2.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Li', 'O', 'V')\",OTHERS,True\nmp-1217015,\"{'Ti': 1.0, 'Al': 2.0, 'V': 1.0}\",\"('Al', 'Ti', 'V')\",OTHERS,True\nmp-6853,\"{'O': 14.0, 'Si': 2.0, 'Ca': 3.0, 'Ga': 3.0, 'Ta': 1.0}\",\"('Ca', 'Ga', 'O', 'Si', 'Ta')\",OTHERS,True\nmp-752601,\"{'Na': 1.0, 'Mn': 3.0, 'O': 4.0}\",\"('Mn', 'Na', 'O')\",OTHERS,True\nmp-780053,\"{'Na': 16.0, 'Ge': 16.0, 'O': 40.0}\",\"('Ge', 'Na', 'O')\",OTHERS,True\nmp-680260,\"{'Ti': 45.0, 'Se': 16.0}\",\"('Se', 'Ti')\",OTHERS,True\nmp-17230,\"{'Ga': 2.0, 'Nb': 10.0, 'Sn': 4.0}\",\"('Ga', 'Nb', 'Sn')\",OTHERS,True\nmp-1228976,\"{'Ba': 9.0, 'Bi': 18.0, 'S': 36.0}\",\"('Ba', 'Bi', 'S')\",OTHERS,True\nmp-1180189,\"{'Na': 1.0, 'Al': 3.0, 'Cr': 2.0, 'O': 14.0}\",\"('Al', 'Cr', 'Na', 'O')\",OTHERS,True\nmp-1017467,\"{'Ca': 1.0, 'Mn': 1.0, 'O': 3.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,True\nmp-675771,\"{'Al': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Al', 'O', 'P')\",OTHERS,True\nmp-1196864,\"{'K': 4.0, 'In': 4.0, 'P': 8.0, 'O': 32.0}\",\"('In', 'K', 'O', 'P')\",OTHERS,True\nmp-30960,\"{'O': 24.0, 'Dy': 4.0, 'W': 6.0}\",\"('Dy', 'O', 'W')\",OTHERS,True\nmp-1096377,\"{'Ti': 2.0, 'Ga': 1.0, 'Tc': 1.0}\",\"('Ga', 'Tc', 'Ti')\",OTHERS,True\nmp-1020025,\"{'Li': 16.0, 'B': 48.0, 'O': 80.0}\",\"('B', 'Li', 'O')\",OTHERS,True\nmp-760690,\"{'Li': 8.0, 'Te': 1.0, 'O': 6.0}\",\"('Li', 'O', 'Te')\",OTHERS,True\nmp-1206098,\"{'Zr': 1.0, 'Mn': 1.0, 'F': 6.0}\",\"('F', 'Mn', 'Zr')\",OTHERS,True\nmp-1175530,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1204808,\"{'Na': 4.0, 'Li': 4.0, 'Ni': 2.0, 'P': 12.0, 'H': 48.0, 'O': 60.0}\",\"('H', 'Li', 'Na', 'Ni', 'O', 'P')\",OTHERS,True\nmp-999145,\"{'Sm': 2.0, 'Ni': 2.0}\",\"('Ni', 'Sm')\",OTHERS,True\nmp-1177080,\"{'Li': 10.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-861904,\"{'La': 6.0, 'Al': 2.0, 'Cr': 2.0, 'S': 14.0}\",\"('Al', 'Cr', 'La', 'S')\",OTHERS,True\nmp-557322,\"{'Bi': 4.0, 'Te': 2.0, 'Br': 2.0, 'O': 9.0}\",\"('Bi', 'Br', 'O', 'Te')\",OTHERS,True\nmp-707958,\"{'P': 2.0, 'H': 18.0, 'C': 4.0, 'N': 8.0, 'O': 10.0}\",\"('C', 'H', 'N', 'O', 'P')\",OTHERS,True\nmp-28838,\"{'C': 2.0, 'Si': 2.0, 'U': 3.0}\",\"('C', 'Si', 'U')\",OTHERS,True\nmp-1261917,\"{'Ba': 2.0, 'Al': 2.0, 'W': 8.0, 'O': 14.0}\",\"('Al', 'Ba', 'O', 'W')\",OTHERS,True\nmp-3849,\"{'S': 4.0, 'Fe': 2.0, 'Tl': 2.0}\",\"('Fe', 'S', 'Tl')\",OTHERS,True\nmp-26903,\"{'Li': 6.0, 'V': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-684690,\"{'Sc': 4.0, 'Se': 6.0}\",\"('Sc', 'Se')\",OTHERS,True\nmvc-8750,\"{'Zn': 1.0, 'Sn': 4.0, 'O': 8.0}\",\"('O', 'Sn', 'Zn')\",OTHERS,True\nmp-645796,\"{'Tl': 4.0, 'Fe': 4.0, 'Mo': 8.0, 'O': 32.0}\",\"('Fe', 'Mo', 'O', 'Tl')\",OTHERS,True\nmp-759038,\"{'Li': 4.0, 'Ti': 2.0, 'Fe': 3.0, 'Co': 3.0, 'O': 16.0}\",\"('Co', 'Fe', 'Li', 'O', 'Ti')\",OTHERS,True\nmp-614444,\"{'Zr': 1.0, 'Zn': 1.0}\",\"('Zn', 'Zr')\",OTHERS,True\nmp-1192359,\"{'Cs': 4.0, 'Mn': 2.0, 'Te': 4.0, 'S': 12.0}\",\"('Cs', 'Mn', 'S', 'Te')\",OTHERS,True\nmp-22623,\"{'Cu': 4.0, 'Ge': 4.0, 'Ce': 3.0}\",\"('Ce', 'Cu', 'Ge')\",OTHERS,True\nmp-22399,\"{'O': 4.0, 'S': 8.0, 'Yb': 8.0}\",\"('O', 'S', 'Yb')\",OTHERS,True\nmp-1211411,\"{'Li': 24.0, 'Sn': 24.0, 'Pt': 16.0}\",\"('Li', 'Pt', 'Sn')\",OTHERS,True\nmp-1181733,\"{'K': 4.0, 'Ba': 4.0, 'V': 20.0, 'O': 72.0}\",\"('Ba', 'K', 'O', 'V')\",OTHERS,True\nmp-30656,\"{'Ti': 3.0, 'Ni': 3.0, 'Ga': 3.0}\",\"('Ga', 'Ni', 'Ti')\",OTHERS,True\nmp-1245020,\"{'W': 34.0, 'O': 68.0}\",\"('O', 'W')\",OTHERS,True\nmp-1207202,\"{'La': 1.0, 'P': 2.0, 'Pd': 2.0}\",\"('La', 'P', 'Pd')\",OTHERS,True\nmp-1209593,\"{'Rb': 4.0, 'Cu': 2.0, 'Cl': 8.0, 'O': 4.0}\",\"('Cl', 'Cu', 'O', 'Rb')\",OTHERS,True\nmp-764374,\"{'Li': 4.0, 'Mn': 8.0, 'O': 2.0, 'F': 16.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1247221,\"{'Lu': 3.0, 'Mg': 2.0, 'Mn': 1.0, 'S': 8.0}\",\"('Lu', 'Mg', 'Mn', 'S')\",OTHERS,True\nmp-4865,\"{'Ni': 2.0, 'Ge': 2.0, 'Er': 1.0}\",\"('Er', 'Ge', 'Ni')\",OTHERS,True\nmp-3071,\"{'B': 2.0, 'Ni': 13.0, 'Nd': 3.0}\",\"('B', 'Nd', 'Ni')\",OTHERS,True\nmp-1100553,\"{'Li': 9.0, 'Mn': 7.0, 'O': 16.0}\",\"('Li', 'Mn', 'O')\",OTHERS,True\nmp-1199487,\"{'Mo': 4.0, 'H': 32.0, 'S': 16.0, 'N': 8.0}\",\"('H', 'Mo', 'N', 'S')\",OTHERS,True\nmp-570525,\"{'La': 8.0, 'Zn': 8.0, 'Rh': 8.0}\",\"('La', 'Rh', 'Zn')\",OTHERS,True\nmp-1246782,\"{'Al': 4.0, 'Ni': 2.0, 'N': 6.0}\",\"('Al', 'N', 'Ni')\",OTHERS,True\nmp-1180,\"{'Mn': 1.0, 'Pt': 3.0}\",\"('Mn', 'Pt')\",OTHERS,True\nmp-1217101,\"{'Ti': 3.0, 'S': 4.0}\",\"('S', 'Ti')\",OTHERS,True\nmp-772728,\"{'Na': 10.0, 'Li': 2.0, 'Mn': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Li', 'Mn', 'Na', 'O', 'P')\",OTHERS,True\nmp-1037039,\"{'Mg': 30.0, 'Fe': 1.0, 'Co': 1.0, 'O': 32.0}\",\"('Co', 'Fe', 'Mg', 'O')\",OTHERS,True\nmp-1200531,\"{'Mn': 1.0, 'H': 44.0, 'C': 12.0, 'N': 8.0, 'Cl': 2.0, 'O': 10.0}\",\"('C', 'Cl', 'H', 'Mn', 'N', 'O')\",OTHERS,True\nmp-1205455,\"{'Sn': 4.0, 'Se': 4.0}\",\"('Se', 'Sn')\",OTHERS,True\nmp-1178831,\"{'V': 8.0, 'O': 14.0}\",\"('O', 'V')\",OTHERS,True\nmp-1040135,\"{'Li': 1.0, 'Mg': 30.0, 'B': 1.0, 'O': 32.0}\",\"('B', 'Li', 'Mg', 'O')\",OTHERS,True\nmp-1222656,\"{'Li': 2.0, 'Ti': 1.0, 'O': 3.0}\",\"('Li', 'O', 'Ti')\",OTHERS,True\nmp-1084826,\"{'Nd': 4.0, 'Co': 6.0}\",\"('Co', 'Nd')\",OTHERS,True\nmp-1077232,\"{'W': 2.0, 'N': 4.0}\",\"('N', 'W')\",OTHERS,True\nmp-867795,\"{'Sc': 1.0, 'Nb': 1.0, 'Tc': 2.0}\",\"('Nb', 'Sc', 'Tc')\",OTHERS,True\nmp-1183996,\"{'Cu': 6.0, 'F': 2.0}\",\"('Cu', 'F')\",OTHERS,True\nmp-1185104,\"{'K': 1.0, 'In': 3.0}\",\"('In', 'K')\",OTHERS,True\nmp-758310,\"{'Li': 12.0, 'Ti': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'O', 'P', 'Ti')\",OTHERS,True\nmp-1184494,\"{'Gd': 1.0, 'Cd': 1.0, 'Pt': 2.0}\",\"('Cd', 'Gd', 'Pt')\",OTHERS,True\nmp-757851,\"{'Li': 8.0, 'Co': 12.0, 'Ni': 4.0, 'O': 32.0}\",\"('Co', 'Li', 'Ni', 'O')\",OTHERS,True\nmp-775258,\"{'Li': 8.0, 'Mn': 2.0, 'Fe': 6.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1073477,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-979057,\"{'Sm': 2.0, 'Zn': 1.0, 'Ag': 1.0}\",\"('Ag', 'Sm', 'Zn')\",OTHERS,True\nmp-21005,\"{'In': 1.0, 'Gd': 1.0}\",\"('Gd', 'In')\",OTHERS,True\nmp-772075,\"{'Li': 12.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-1114575,\"{'Rb': 2.0, 'Li': 1.0, 'Sb': 1.0, 'Br': 6.0}\",\"('Br', 'Li', 'Rb', 'Sb')\",OTHERS,True\nmp-684620,\"{'Nb': 25.0, 'S': 48.0}\",\"('Nb', 'S')\",OTHERS,True\nmp-1183381,\"{'Ba': 2.0, 'Zn': 1.0, 'In': 1.0}\",\"('Ba', 'In', 'Zn')\",OTHERS,True\nmp-1093817,\"{'Cs': 2.0, 'Hg': 1.0, 'Au': 1.0}\",\"('Au', 'Cs', 'Hg')\",OTHERS,True\nmp-1147544,\"{'Ba': 2.0, 'Tl': 1.0, 'Cu': 3.0, 'O': 7.0}\",\"('Ba', 'Cu', 'O', 'Tl')\",OTHERS,True\nmp-1177993,\"{'Li': 8.0, 'Mn': 12.0, 'Sn': 4.0, 'O': 32.0}\",\"('Li', 'Mn', 'O', 'Sn')\",OTHERS,True\nmp-1178068,\"{'Li': 24.0, 'Ti': 1.0, 'Cr': 11.0, 'O': 36.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,True\nmp-645504,\"{'Yb': 46.0, 'Mg': 8.0, 'Cu': 14.0}\",\"('Cu', 'Mg', 'Yb')\",OTHERS,True\nmp-1245152,{'Al': 100.0},\"('Al',)\",OTHERS,True\nmp-571607,\"{'Cd': 12.0, 'I': 24.0}\",\"('Cd', 'I')\",OTHERS,True\nmp-1197275,\"{'Tb': 8.0, 'Fe': 56.0, 'C': 4.0}\",\"('C', 'Fe', 'Tb')\",OTHERS,True\nmp-1207321,\"{'Pr': 2.0, 'Cu': 1.0, 'Sb': 3.0}\",\"('Cu', 'Pr', 'Sb')\",OTHERS,True\nmp-1266446,\"{'Li': 20.0, 'Cu': 2.0, 'Si': 4.0, 'O': 20.0}\",\"('Cu', 'Li', 'O', 'Si')\",OTHERS,True\nmp-1193638,\"{'Nb': 8.0, 'Fe': 2.0, 'Se': 16.0}\",\"('Fe', 'Nb', 'Se')\",OTHERS,True\nmp-757601,\"{'Ba': 8.0, 'Fe': 8.0, 'O': 21.0}\",\"('Ba', 'Fe', 'O')\",OTHERS,True\nmp-1028604,\"{'Te': 4.0, 'W': 4.0, 'S': 4.0}\",\"('S', 'Te', 'W')\",OTHERS,True\nmp-1078906,\"{'Co': 1.0, 'Te': 1.0, 'Pb': 2.0, 'O': 6.0}\",\"('Co', 'O', 'Pb', 'Te')\",OTHERS,True\nmp-1080715,\"{'Sc': 3.0, 'Si': 3.0, 'Ru': 3.0}\",\"('Ru', 'Sc', 'Si')\",OTHERS,True\nmp-1246994,\"{'Zr': 4.0, 'Cr': 4.0, 'Ag': 4.0, 'S': 16.0}\",\"('Ag', 'Cr', 'S', 'Zr')\",OTHERS,True\nmp-1026034,\"{'Mo': 1.0, 'W': 2.0, 'S': 6.0}\",\"('Mo', 'S', 'W')\",OTHERS,True\nmp-999508,\"{'Mn': 1.0, 'Si': 1.0, 'Ni': 2.0}\",\"('Mn', 'Ni', 'Si')\",OTHERS,True\nmp-1912,\"{'Zn': 1.0, 'Ag': 1.0}\",\"('Ag', 'Zn')\",OTHERS,True\nmp-1212351,\"{'Na': 3.0, 'Cr': 1.0, 'O': 6.0}\",\"('Cr', 'Na', 'O')\",OTHERS,True\nmp-559931,\"{'F': 6.0, 'V': 2.0}\",\"('F', 'V')\",OTHERS,True\nmp-744914,\"{'Ca': 8.0, 'Mg': 1.0, 'Al': 6.0, 'Si': 5.0, 'O': 28.0}\",\"('Al', 'Ca', 'Mg', 'O', 'Si')\",OTHERS,True\nmp-25886,\"{'Cu': 2.0, 'P': 2.0, 'O': 8.0}\",\"('Cu', 'O', 'P')\",OTHERS,True\nmp-690515,\"{'K': 2.0, 'Co': 1.0, 'H': 2.0, 'Se': 2.0, 'O': 10.0}\",\"('Co', 'H', 'K', 'O', 'Se')\",OTHERS,True\nmp-17745,\"{'F': 12.0, 'S': 2.0, 'Mn': 4.0, 'Hg': 4.0}\",\"('F', 'Hg', 'Mn', 'S')\",OTHERS,True\nmvc-5910,\"{'Mg': 2.0, 'Mo': 1.0, 'W': 1.0, 'O': 6.0}\",\"('Mg', 'Mo', 'O', 'W')\",OTHERS,True\nmp-567772,{'Na': 8.0},\"('Na',)\",OTHERS,True\nmp-21497,\"{'O': 10.0, 'S': 2.0, 'Pb': 4.0}\",\"('O', 'Pb', 'S')\",OTHERS,True\nmp-1221041,\"{'Na': 8.0, 'Zr': 3.0, 'Si': 16.0, 'Sn': 1.0, 'H': 16.0, 'O': 52.0}\",\"('H', 'Na', 'O', 'Si', 'Sn', 'Zr')\",OTHERS,True\nmp-29000,\"{'B': 40.0, 'Na': 24.0, 'S': 72.0}\",\"('B', 'Na', 'S')\",OTHERS,True\nmp-756921,\"{'Li': 1.0, 'Zn': 1.0, 'Fe': 10.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Zn')\",OTHERS,True\nmp-1194642,\"{'Fe': 2.0, 'H': 8.0, 'C': 6.0, 'O': 16.0}\",\"('C', 'Fe', 'H', 'O')\",OTHERS,True\nmp-1228195,\"{'Ba': 7.0, 'Nb': 4.0, 'Mo': 1.0, 'O': 20.0}\",\"('Ba', 'Mo', 'Nb', 'O')\",OTHERS,True\nmp-1214519,\"{'Ba': 12.0, 'Y': 4.0, 'Al': 8.0, 'O': 30.0}\",\"('Al', 'Ba', 'O', 'Y')\",OTHERS,True\nmp-558759,\"{'Cd': 8.0, 'Te': 12.0, 'Cl': 12.0, 'O': 26.0}\",\"('Cd', 'Cl', 'O', 'Te')\",OTHERS,True\nmp-510459,\"{'O': 8.0, 'V': 2.0, 'Mn': 2.0, 'Cu': 2.0}\",\"('Cu', 'Mn', 'O', 'V')\",OTHERS,True\nmp-610706,\"{'F': 6.0, 'Co': 1.0, 'Cs': 2.0}\",\"('Co', 'Cs', 'F')\",OTHERS,True\nmp-1033754,\"{'Hf': 1.0, 'Mg': 14.0, 'Sb': 1.0, 'O': 16.0}\",\"('Hf', 'Mg', 'O', 'Sb')\",OTHERS,True\nmp-32688,\"{'Nd': 16.0, 'Se': 24.0}\",\"('Nd', 'Se')\",OTHERS,True\nmp-1180728,\"{'Mg': 2.0, 'As': 2.0, 'N': 2.0, 'O': 20.0}\",\"('As', 'Mg', 'N', 'O')\",OTHERS,True\nmp-1208711,\"{'Sm': 4.0, 'Br': 8.0}\",\"('Br', 'Sm')\",OTHERS,True\nmp-974948,\"{'Rb': 3.0, 'In': 1.0}\",\"('In', 'Rb')\",OTHERS,True\nmp-1227254,\"{'Ca': 1.0, 'Mn': 1.0, 'Cu': 3.0, 'Ru': 3.0, 'O': 12.0}\",\"('Ca', 'Cu', 'Mn', 'O', 'Ru')\",OTHERS,True\nmp-1211085,\"{'Li': 2.0, 'Ca': 4.0, 'Fe': 2.0, 'N': 4.0}\",\"('Ca', 'Fe', 'Li', 'N')\",OTHERS,True\nmp-622213,\"{'Ge': 16.0, 'S': 32.0}\",\"('Ge', 'S')\",OTHERS,True\nmp-12275,\"{'Zn': 4.0, 'Sr': 4.0, 'Sb': 8.0}\",\"('Sb', 'Sr', 'Zn')\",OTHERS,True\nmp-706227,\"{'B': 6.0, 'H': 30.0, 'C': 24.0, 'N': 24.0, 'O': 12.0}\",\"('B', 'C', 'H', 'N', 'O')\",OTHERS,True\nmp-1215704,\"{'Zr': 3.0, 'Mn': 8.0, 'Al': 1.0}\",\"('Al', 'Mn', 'Zr')\",OTHERS,True\nmp-753013,\"{'Co': 3.0, 'Te': 1.0, 'O': 8.0}\",\"('Co', 'O', 'Te')\",OTHERS,True\nmp-982981,\"{'Na': 6.0, 'Rh': 2.0}\",\"('Na', 'Rh')\",OTHERS,True\nmp-4476,\"{'Si': 2.0, 'Cu': 2.0, 'Ho': 2.0}\",\"('Cu', 'Ho', 'Si')\",OTHERS,True\nmp-1195797,\"{'Hg': 4.0, 'Sb': 14.0, 'H': 4.0, 'Xe': 6.0, 'F': 118.0}\",\"('F', 'H', 'Hg', 'Sb', 'Xe')\",OTHERS,True\nmp-1079559,\"{'Cd': 2.0, 'P': 2.0, 'Se': 6.0}\",\"('Cd', 'P', 'Se')\",OTHERS,True\nmp-1225419,\"{'Fe': 16.0, 'Ni': 20.0, 'P': 12.0}\",\"('Fe', 'Ni', 'P')\",OTHERS,True\nmp-28630,\"{'B': 4.0, 'N': 8.0, 'Na': 12.0}\",\"('B', 'N', 'Na')\",OTHERS,True\nmp-9566,\"{'Mg': 2.0, 'Sr': 1.0, 'Sb': 2.0}\",\"('Mg', 'Sb', 'Sr')\",OTHERS,True\nmp-755597,\"{'Ca': 4.0, 'Ce': 2.0, 'O': 8.0}\",\"('Ca', 'Ce', 'O')\",OTHERS,True\nmp-541218,\"{'Gd': 4.0, 'P': 8.0, 'O': 40.0, 'H': 36.0}\",\"('Gd', 'H', 'O', 'P')\",OTHERS,True\nmp-1178106,\"{'Li': 4.0, 'Fe': 8.0, 'O': 16.0}\",\"('Fe', 'Li', 'O')\",OTHERS,True\nmp-1112148,\"{'Cs': 2.0, 'Na': 1.0, 'Mo': 1.0, 'I': 6.0}\",\"('Cs', 'I', 'Mo', 'Na')\",OTHERS,True\nmp-19879,\"{'P': 4.0, 'Pd': 12.0}\",\"('P', 'Pd')\",OTHERS,True\nmp-1222057,\"{'Mg': 1.0, 'Fe': 4.0, 'Co': 1.0, 'O': 8.0}\",\"('Co', 'Fe', 'Mg', 'O')\",OTHERS,True\nmp-768809,\"{'Li': 12.0, 'Bi': 4.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Bi', 'Li', 'O')\",OTHERS,True\nmp-27814,\"{'C': 1.0, 'S': 14.0}\",\"('C', 'S')\",OTHERS,True\nmp-685044,\"{'Yb': 16.0, 'S': 29.0}\",\"('S', 'Yb')\",OTHERS,True\nmp-8832,\"{'Si': 2.0, 'Cr': 2.0, 'Tb': 1.0}\",\"('Cr', 'Si', 'Tb')\",OTHERS,True\nmp-1096036,\"{'Sc': 1.0, 'Ga': 1.0, 'Ag': 2.0}\",\"('Ag', 'Ga', 'Sc')\",OTHERS,True\nmp-1114505,\"{'Rb': 2.0, 'Tl': 2.0, 'Br': 6.0}\",\"('Br', 'Rb', 'Tl')\",OTHERS,True\nmp-1218981,\"{'Sm': 1.0, 'Pa': 1.0, 'O': 4.0}\",\"('O', 'Pa', 'Sm')\",OTHERS,True\nmp-1188079,\"{'Zr': 8.0, 'In': 4.0, 'Ni': 8.0}\",\"('In', 'Ni', 'Zr')\",OTHERS,True\nmp-1182698,\"{'Fe': 16.0, 'H': 20.0, 'O': 34.0}\",\"('Fe', 'H', 'O')\",OTHERS,True\nmp-721058,\"{'Co': 8.0, 'P': 8.0, 'H': 24.0, 'O': 32.0}\",\"('Co', 'H', 'O', 'P')\",OTHERS,True\nmp-1206729,\"{'Nb': 1.0, 'Ga': 1.0, 'Pb': 2.0, 'O': 6.0}\",\"('Ga', 'Nb', 'O', 'Pb')\",OTHERS,True\nmp-3788,\"{'O': 14.0, 'Al': 8.0, 'Sr': 2.0}\",\"('Al', 'O', 'Sr')\",OTHERS,True\nmp-758930,\"{'Na': 40.0, 'Fe': 8.0, 'H': 8.0, 'O': 32.0}\",\"('Fe', 'H', 'Na', 'O')\",OTHERS,True\nmp-981384,\"{'Sc': 1.0, 'Os': 3.0}\",\"('Os', 'Sc')\",OTHERS,True\nmp-989537,\"{'Cs': 2.0, 'Tl': 1.0, 'In': 1.0, 'F': 6.0}\",\"('Cs', 'F', 'In', 'Tl')\",OTHERS,True\nmp-757613,\"{'Li': 8.0, 'Co': 12.0, 'Sb': 4.0, 'O': 32.0}\",\"('Co', 'Li', 'O', 'Sb')\",OTHERS,True\nmp-715517,\"{'V': 16.0, 'O': 32.0}\",\"('O', 'V')\",OTHERS,True\nmp-1019543,\"{'Ba': 8.0, 'Ca': 8.0, 'P': 16.0, 'O': 56.0}\",\"('Ba', 'Ca', 'O', 'P')\",OTHERS,True\nmp-557659,\"{'K': 2.0, 'V': 8.0, 'P': 14.0, 'O': 48.0}\",\"('K', 'O', 'P', 'V')\",OTHERS,True\nmp-1009752,\"{'Sc': 1.0, 'Si': 1.0}\",\"('Sc', 'Si')\",OTHERS,True\nmp-5149,\"{'Al': 1.0, 'Co': 2.0, 'Nb': 1.0}\",\"('Al', 'Co', 'Nb')\",OTHERS,True\nmp-684829,\"{'Co': 27.0, 'Se': 32.0}\",\"('Co', 'Se')\",OTHERS,True\nmp-1198456,\"{'Na': 4.0, 'Zn': 2.0, 'P': 8.0, 'H': 32.0, 'O': 40.0}\",\"('H', 'Na', 'O', 'P', 'Zn')\",OTHERS,True\nmp-1191981,\"{'Ta': 7.0, 'B': 8.0, 'Ru': 6.0}\",\"('B', 'Ru', 'Ta')\",OTHERS,True\nmp-1093890,\"{'Li': 2.0, 'Tl': 1.0, 'Cd': 1.0}\",\"('Cd', 'Li', 'Tl')\",OTHERS,True\nmp-756466,\"{'Nb': 1.0, 'Co': 3.0, 'P': 4.0, 'O': 16.0}\",\"('Co', 'Nb', 'O', 'P')\",OTHERS,True\nmp-20276,\"{'F': 18.0, 'U': 4.0}\",\"('F', 'U')\",OTHERS,True\nmp-1102055,\"{'La': 4.0, 'As': 8.0}\",\"('As', 'La')\",OTHERS,True\nmp-1076181,\"{'Ba': 4.0, 'Sr': 28.0, 'Mn': 8.0, 'Fe': 24.0, 'O': 80.0}\",\"('Ba', 'Fe', 'Mn', 'O', 'Sr')\",OTHERS,True\nmp-1184025,\"{'Eu': 2.0, 'Mg': 1.0, 'In': 1.0}\",\"('Eu', 'In', 'Mg')\",OTHERS,True\nmp-1197569,\"{'Zn': 2.0, 'Ni': 21.0, 'B': 20.0}\",\"('B', 'Ni', 'Zn')\",OTHERS,True\nmp-1177426,\"{'Li': 4.0, 'Fe': 3.0, 'Cu': 2.0, 'Sn': 3.0, 'O': 16.0}\",\"('Cu', 'Fe', 'Li', 'O', 'Sn')\",OTHERS,True\nmp-769176,\"{'K': 40.0, 'Y': 8.0, 'O': 32.0}\",\"('K', 'O', 'Y')\",OTHERS,True\nmp-1113946,\"{'K': 1.0, 'Na': 2.0, 'Sb': 1.0, 'F': 6.0}\",\"('F', 'K', 'Na', 'Sb')\",OTHERS,True\nmp-1212862,\"{'Gd': 4.0, 'In': 8.0, 'Cl': 20.0}\",\"('Cl', 'Gd', 'In')\",OTHERS,True\nmp-1212745,\"{'Eu': 4.0, 'Er': 8.0, 'O': 16.0}\",\"('Er', 'Eu', 'O')\",OTHERS,True\nmp-1114541,\"{'K': 1.0, 'Rb': 2.0, 'Lu': 1.0, 'Cl': 6.0}\",\"('Cl', 'K', 'Lu', 'Rb')\",OTHERS,True\nmp-1218730,\"{'Sr': 2.0, 'Si': 3.0, 'Ni': 1.0}\",\"('Ni', 'Si', 'Sr')\",OTHERS,True\nmp-1173503,\"{'Na': 4.0, 'Pr': 8.0, 'Ti': 8.0, 'Mn': 4.0, 'O': 36.0}\",\"('Mn', 'Na', 'O', 'Pr', 'Ti')\",OTHERS,True\nmp-540783,\"{'Os': 2.0, 'O': 8.0}\",\"('O', 'Os')\",OTHERS,True\nmp-1218535,\"{'Sr': 1.0, 'Al': 3.0, 'P': 1.0, 'S': 1.0, 'O': 14.0}\",\"('Al', 'O', 'P', 'S', 'Sr')\",OTHERS,True\nmp-1206061,\"{'K': 3.0, 'U': 1.0, 'F': 6.0}\",\"('F', 'K', 'U')\",OTHERS,True\nmp-2573,\"{'Al': 3.0, 'Np': 1.0}\",\"('Al', 'Np')\",OTHERS,True\nmp-753708,\"{'Ti': 4.0, 'O': 4.0, 'F': 4.0}\",\"('F', 'O', 'Ti')\",OTHERS,True\nmp-1211125,\"{'Nd': 8.0, 'Co': 2.0, 'S': 14.0}\",\"('Co', 'Nd', 'S')\",OTHERS,True\nmp-8825,\"{'O': 44.0, 'Pr': 24.0}\",\"('O', 'Pr')\",OTHERS,True\nmp-772554,\"{'Li': 4.0, 'Nb': 3.0, 'V': 5.0, 'O': 16.0}\",\"('Li', 'Nb', 'O', 'V')\",OTHERS,True\nmp-849735,\"{'Li': 4.0, 'Cr': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,True\nmp-1147542,\"{'Ba': 2.0, 'Cu': 1.0, 'S': 2.0, 'Br': 2.0}\",\"('Ba', 'Br', 'Cu', 'S')\",OTHERS,True\nmp-763923,\"{'Co': 6.0, 'O': 4.0, 'F': 8.0}\",\"('Co', 'F', 'O')\",OTHERS,True\nmp-976806,\"{'Ni': 2.0, 'Au': 6.0}\",\"('Au', 'Ni')\",OTHERS,True\nmp-1095172,\"{'Cs': 2.0, 'Nd': 2.0, 'S': 4.0}\",\"('Cs', 'Nd', 'S')\",OTHERS,True\nmp-644223,\"{'Li': 2.0, 'B': 2.0, 'H': 8.0}\",\"('B', 'H', 'Li')\",OTHERS,True\nmp-998429,\"{'Ni': 2.0, 'Ag': 2.0, 'F': 6.0}\",\"('Ag', 'F', 'Ni')\",OTHERS,True\nmp-1101595,\"{'Mo': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Mo', 'O', 'P')\",OTHERS,True\nmp-7524,\"{'P': 2.0, 'Se': 2.0, 'Nb': 2.0}\",\"('Nb', 'P', 'Se')\",OTHERS,True\nmp-643651,\"{'Rb': 6.0, 'Zn': 2.0, 'H': 10.0}\",\"('H', 'Rb', 'Zn')\",OTHERS,True\nmvc-16787,\"{'Zn': 2.0, 'Cr': 4.0, 'S': 8.0}\",\"('Cr', 'S', 'Zn')\",OTHERS,True\nmp-36480,\"{'Cu': 2.0, 'La': 4.0, 'O': 8.0}\",\"('Cu', 'La', 'O')\",OTHERS,True\nmp-1029262,\"{'V': 2.0, 'Zn': 4.0, 'N': 6.0}\",\"('N', 'V', 'Zn')\",OTHERS,True\nmp-774239,\"{'Li': 4.0, 'Co': 8.0, 'O': 16.0}\",\"('Co', 'Li', 'O')\",OTHERS,True\nmp-1018712,\"{'Hf': 1.0, 'Ga': 4.0, 'Co': 1.0}\",\"('Co', 'Ga', 'Hf')\",OTHERS,True\nmp-7999,\"{'O': 14.0, 'Si': 4.0, 'Y': 4.0}\",\"('O', 'Si', 'Y')\",OTHERS,True\nmp-673637,\"{'Ti': 27.0, 'S': 30.0}\",\"('S', 'Ti')\",OTHERS,True\nmp-1227962,\"{'Ba': 1.0, 'Cd': 3.0, 'Ga': 1.0}\",\"('Ba', 'Cd', 'Ga')\",OTHERS,True\nmp-31703,\"{'O': 4.0, 'F': 12.0, 'Cr': 4.0}\",\"('Cr', 'F', 'O')\",OTHERS,True\nmp-19314,\"{'Be': 6.0, 'O': 24.0, 'Si': 6.0, 'S': 2.0, 'Mn': 8.0}\",\"('Be', 'Mn', 'O', 'S', 'Si')\",OTHERS,True\nmp-1196301,\"{'La': 16.0, 'Mn': 8.0, 'Se': 16.0, 'O': 16.0}\",\"('La', 'Mn', 'O', 'Se')\",OTHERS,True\nmp-16750,\"{'Cu': 2.0, 'Ho': 2.0, 'Pb': 2.0}\",\"('Cu', 'Ho', 'Pb')\",OTHERS,True\nmp-753393,\"{'Na': 1.0, 'V': 1.0, 'O': 2.0}\",\"('Na', 'O', 'V')\",OTHERS,True\nmp-864742,\"{'Na': 3.0, 'Sn': 1.0}\",\"('Na', 'Sn')\",OTHERS,True\nmp-985829,\"{'Hf': 1.0, 'S': 2.0}\",\"('Hf', 'S')\",OTHERS,True\nmp-532329,\"{'Cu': 8.0, 'Fe': 12.0, 'S': 40.0}\",\"('Cu', 'Fe', 'S')\",OTHERS,True\nmp-1200744,\"{'Rb': 4.0, 'Cd': 6.0, 'B': 32.0, 'O': 56.0}\",\"('B', 'Cd', 'O', 'Rb')\",OTHERS,True\nmp-26765,\"{'Li': 2.0, 'O': 48.0, 'P': 14.0, 'V': 12.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-558193,\"{'K': 2.0, 'Cu': 3.0, 'As': 4.0, 'O': 12.0}\",\"('As', 'Cu', 'K', 'O')\",OTHERS,True\nmp-983539,\"{'Be': 1.0, 'Au': 3.0}\",\"('Au', 'Be')\",OTHERS,True\nmp-761153,\"{'U': 6.0, 'O': 11.0}\",\"('O', 'U')\",OTHERS,True\nmp-30454,\"{'Er': 1.0, 'Pt': 1.0, 'Bi': 1.0}\",\"('Bi', 'Er', 'Pt')\",OTHERS,True\nmp-1094692,\"{'Mg': 48.0, 'Al': 39.0}\",\"('Al', 'Mg')\",OTHERS,True\nmp-569015,\"{'Mg': 8.0, 'Cu': 8.0, 'As': 8.0}\",\"('As', 'Cu', 'Mg')\",OTHERS,True\nmp-1247341,\"{'La': 1.0, 'Mg': 2.0, 'V': 3.0, 'S': 8.0}\",\"('La', 'Mg', 'S', 'V')\",OTHERS,True\nmp-1187044,\"{'Sn': 6.0, 'P': 2.0}\",\"('P', 'Sn')\",OTHERS,True\nmvc-13836,\"{'Ta': 1.0, 'F': 5.0}\",\"('F', 'Ta')\",OTHERS,True\nmp-12855,\"{'Cu': 2.0, 'Ge': 1.0, 'Se': 4.0, 'Hg': 1.0}\",\"('Cu', 'Ge', 'Hg', 'Se')\",OTHERS,True\nmp-1186285,\"{'Nd': 6.0, 'Pa': 2.0}\",\"('Nd', 'Pa')\",OTHERS,True\nmp-1077377,\"{'Yb': 2.0, 'Cu': 2.0, 'Pb': 2.0}\",\"('Cu', 'Pb', 'Yb')\",OTHERS,True\nmp-1623,\"{'S': 1.0, 'Er': 1.0}\",\"('Er', 'S')\",OTHERS,True\nmp-1120785,\"{'Na': 16.0, 'V': 16.0, 'F': 56.0}\",\"('F', 'Na', 'V')\",OTHERS,True\nmp-2192,\"{'B': 2.0, 'Pt': 2.0}\",\"('B', 'Pt')\",OTHERS,True\nmp-1213829,\"{'Ce': 8.0, 'Al': 1.0, 'Pd': 24.0}\",\"('Al', 'Ce', 'Pd')\",OTHERS,True\nmp-2371,\"{'Ga': 2.0, 'Te': 5.0}\",\"('Ga', 'Te')\",OTHERS,True\nmp-1199808,\"{'Tl': 4.0, 'Ni': 2.0, 'H': 24.0, 'S': 4.0, 'O': 28.0}\",\"('H', 'Ni', 'O', 'S', 'Tl')\",OTHERS,True\nmp-1208539,\"{'Tb': 4.0, 'Cu': 2.0, 'Ge': 4.0, 'O': 16.0}\",\"('Cu', 'Ge', 'O', 'Tb')\",OTHERS,True\nmp-1207144,\"{'Sm': 4.0, 'Mg': 2.0, 'Pd': 4.0}\",\"('Mg', 'Pd', 'Sm')\",OTHERS,True\nmp-1018055,\"{'Hf': 2.0, 'Ir': 2.0}\",\"('Hf', 'Ir')\",OTHERS,True\nmp-5124,\"{'Mn': 1.0, 'Ni': 2.0, 'Sb': 1.0}\",\"('Mn', 'Ni', 'Sb')\",OTHERS,True\nmp-12834,\"{'Th': 4.0, 'Cu': 24.0}\",\"('Cu', 'Th')\",OTHERS,True\nmp-1076253,\"{'La': 6.0, 'Sm': 2.0, 'V': 5.0, 'Cr': 3.0, 'O': 24.0}\",\"('Cr', 'La', 'O', 'Sm', 'V')\",OTHERS,True\nmp-1222826,\"{'Li': 2.0, 'Zr': 6.0, 'Mn': 1.0, 'Cl': 15.0}\",\"('Cl', 'Li', 'Mn', 'Zr')\",OTHERS,True\nmp-861643,\"{'Ca': 1.0, 'La': 1.0, 'Mg': 2.0}\",\"('Ca', 'La', 'Mg')\",OTHERS,True\nmp-1216480,\"{'V': 3.0, 'Ga': 1.0}\",\"('Ga', 'V')\",OTHERS,True\nmp-753113,\"{'Li': 4.0, 'V': 1.0, 'F': 7.0}\",\"('F', 'Li', 'V')\",OTHERS,True\nmp-693284,\"{'Ca': 12.0, 'Hf': 8.0, 'Fe': 8.0, 'Si': 4.0, 'O': 48.0}\",\"('Ca', 'Fe', 'Hf', 'O', 'Si')\",OTHERS,True\nmp-1184775,\"{'Fe': 2.0, 'Sn': 6.0}\",\"('Fe', 'Sn')\",OTHERS,True\nmp-22993,\"{'O': 4.0, 'Cl': 1.0, 'Ag': 1.0}\",\"('Ag', 'Cl', 'O')\",OTHERS,True\nmp-935267,\"{'Li': 16.0, 'U': 4.0, 'C': 12.0, 'O': 44.0}\",\"('C', 'Li', 'O', 'U')\",OTHERS,True\nmp-558945,\"{'Hg': 12.0, 'As': 4.0, 'Br': 4.0, 'O': 16.0}\",\"('As', 'Br', 'Hg', 'O')\",OTHERS,True\nmp-1095315,\"{'Ba': 2.0, 'W': 2.0, 'O': 8.0}\",\"('Ba', 'O', 'W')\",OTHERS,True\nmp-754407,\"{'Li': 2.0, 'Fe': 1.0, 'S': 2.0}\",\"('Fe', 'Li', 'S')\",OTHERS,True\nmp-1111091,\"{'Na': 2.0, 'Nb': 1.0, 'Ag': 1.0, 'F': 6.0}\",\"('Ag', 'F', 'Na', 'Nb')\",OTHERS,True\nmp-1209247,\"{'Rb': 2.0, 'Nd': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Mo', 'Nd', 'O', 'Rb')\",OTHERS,True\nmvc-16806,\"{'Li': 2.0, 'Cr': 4.0, 'O': 8.0}\",\"('Cr', 'Li', 'O')\",OTHERS,True\nmp-754690,\"{'Mn': 6.0, 'O': 5.0, 'F': 7.0}\",\"('F', 'Mn', 'O')\",OTHERS,True\nmp-677269,\"{'Ca': 16.0, 'Zr': 9.0, 'Ta': 7.0, 'N': 7.0, 'O': 41.0}\",\"('Ca', 'N', 'O', 'Ta', 'Zr')\",OTHERS,True\nmvc-3735,\"{'Ca': 4.0, 'Mo': 4.0, 'F': 20.0}\",\"('Ca', 'F', 'Mo')\",OTHERS,True\nmp-1245817,\"{'Li': 1.0, 'Fe': 1.0, 'N': 1.0}\",\"('Fe', 'Li', 'N')\",OTHERS,True\nmp-973732,\"{'Li': 1.0, 'Ho': 3.0}\",\"('Ho', 'Li')\",OTHERS,True\nmp-1213158,\"{'Er': 10.0, 'Si': 4.0, 'Sb': 4.0}\",\"('Er', 'Sb', 'Si')\",OTHERS,True\nmp-1019105,\"{'K': 2.0, 'Mg': 2.0, 'Bi': 2.0}\",\"('Bi', 'K', 'Mg')\",OTHERS,True\nmp-1111507,\"{'Eu': 1.0, 'Na': 2.0, 'Cu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cu', 'Eu', 'Na')\",OTHERS,True\nmp-754411,\"{'Ta': 4.0, 'Fe': 4.0, 'O': 16.0}\",\"('Fe', 'O', 'Ta')\",OTHERS,True\nmp-1216534,\"{'U': 2.0, 'Se': 1.0, 'S': 1.0}\",\"('S', 'Se', 'U')\",OTHERS,True\nmp-1246058,\"{'Ca': 8.0, 'Re': 2.0, 'N': 8.0}\",\"('Ca', 'N', 'Re')\",OTHERS,True\nmp-1191181,\"{'Ho': 2.0, 'Fe': 12.0, 'P': 7.0}\",\"('Fe', 'Ho', 'P')\",OTHERS,True\nmp-778008,\"{'Mn': 14.0, 'P': 16.0, 'O': 56.0}\",\"('Mn', 'O', 'P')\",OTHERS,True\nmp-567626,\"{'Mg': 2.0, 'Zn': 4.0}\",\"('Mg', 'Zn')\",OTHERS,True\nmp-11506,\"{'Ni': 6.0, 'Mo': 2.0}\",\"('Mo', 'Ni')\",OTHERS,True\nmp-567618,\"{'Si': 20.0, 'Pt': 48.0}\",\"('Pt', 'Si')\",OTHERS,True\nmp-685281,\"{'Ti': 1.0, 'Zn': 1.0, 'H': 12.0, 'O': 6.0, 'F': 6.0}\",\"('F', 'H', 'O', 'Ti', 'Zn')\",OTHERS,True\nmp-25082,\"{'Mo': 4.0, 'C': 24.0, 'O': 24.0}\",\"('C', 'Mo', 'O')\",OTHERS,True\nmp-1219434,\"{'Sc': 4.0, 'Fe': 6.0, 'Ru': 2.0}\",\"('Fe', 'Ru', 'Sc')\",OTHERS,True\nmp-772176,\"{'Li': 6.0, 'Nb': 14.0, 'O': 38.0}\",\"('Li', 'Nb', 'O')\",OTHERS,True\nmp-3952,\"{'O': 16.0, 'Y': 8.0, 'Ba': 4.0}\",\"('Ba', 'O', 'Y')\",OTHERS,True\nmp-24853,\"{'O': 5.0, 'Co': 2.0, 'Ba': 1.0, 'Nd': 1.0}\",\"('Ba', 'Co', 'Nd', 'O')\",OTHERS,True\nmp-1219863,\"{'Pr': 6.0, 'Mn': 1.0, 'Si': 2.0, 'S': 14.0}\",\"('Mn', 'Pr', 'S', 'Si')\",OTHERS,True\nmp-989189,\"{'Sb': 2.0, 'Br': 2.0, 'O': 2.0}\",\"('Br', 'O', 'Sb')\",OTHERS,True\nmp-780881,\"{'Li': 4.0, 'Mn': 3.0, 'Cr': 3.0, 'O': 12.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1176929,\"{'Li': 12.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-541721,\"{'Ba': 6.0, 'Er': 2.0, 'Ru': 4.0, 'O': 18.0}\",\"('Ba', 'Er', 'O', 'Ru')\",OTHERS,True\nmp-1208035,\"{'U': 10.0, 'V': 2.0, 'Sb': 6.0}\",\"('Sb', 'U', 'V')\",OTHERS,True\nmp-1147716,\"{'Cs': 2.0, 'Mo': 2.0, 'C': 12.0}\",\"('C', 'Cs', 'Mo')\",OTHERS,True\nmp-1226784,\"{'Ce': 2.0, 'Mn': 1.0, 'Se': 2.0, 'O': 2.0}\",\"('Ce', 'Mn', 'O', 'Se')\",OTHERS,True\nmp-865600,\"{'Y': 2.0, 'Ir': 1.0, 'Pd': 1.0}\",\"('Ir', 'Pd', 'Y')\",OTHERS,True\nmp-761910,\"{'Li': 6.0, 'Cu': 4.0, 'F': 16.0}\",\"('Cu', 'F', 'Li')\",OTHERS,True\nmp-758217,\"{'Li': 6.0, 'V': 4.0, 'H': 8.0, 'O': 4.0, 'F': 20.0}\",\"('F', 'H', 'Li', 'O', 'V')\",OTHERS,True\nmp-773576,\"{'Li': 1.0, 'Zn': 2.0, 'Fe': 9.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Zn')\",OTHERS,True\nmp-1228885,\"{'Ba': 2.0, 'V': 2.0, 'Cu': 1.0, 'F': 12.0}\",\"('Ba', 'Cu', 'F', 'V')\",OTHERS,True\nmp-624486,\"{'K': 12.0, 'Sn': 6.0, 'Ge': 18.0, 'O': 54.0}\",\"('Ge', 'K', 'O', 'Sn')\",OTHERS,True\nmp-29849,\"{'P': 14.0, 'Ag': 6.0, 'Sn': 2.0}\",\"('Ag', 'P', 'Sn')\",OTHERS,True\nmvc-10776,\"{'Ca': 4.0, 'Ti': 8.0, 'Be': 12.0, 'Si': 12.0, 'O': 48.0}\",\"('Be', 'Ca', 'O', 'Si', 'Ti')\",OTHERS,True\nmp-1179365,\"{'Sr': 2.0, 'H': 32.0, 'O': 20.0}\",\"('H', 'O', 'Sr')\",OTHERS,True\nmp-14623,\"{'K': 10.0, 'Cu': 2.0, 'As': 4.0}\",\"('As', 'Cu', 'K')\",OTHERS,True\nmp-1174776,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-778479,\"{'Mn': 12.0, 'O': 5.0, 'F': 19.0}\",\"('F', 'Mn', 'O')\",OTHERS,True\nmp-1073705,\"{'Mg': 2.0, 'Si': 2.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-558335,\"{'Na': 8.0, 'Pd': 4.0, 'N': 16.0, 'O': 32.0}\",\"('N', 'Na', 'O', 'Pd')\",OTHERS,True\nmp-1219132,\"{'Re': 4.0, 'Mo': 2.0, 'Se': 8.0}\",\"('Mo', 'Re', 'Se')\",OTHERS,True\nmp-1227371,\"{'Ba': 1.0, 'Sr': 1.0, 'La': 1.0, 'Bi': 1.0, 'O': 6.0}\",\"('Ba', 'Bi', 'La', 'O', 'Sr')\",OTHERS,True\nmvc-5445,\"{'Ca': 4.0, 'Y': 2.0, 'Bi': 2.0, 'O': 10.0}\",\"('Bi', 'Ca', 'O', 'Y')\",OTHERS,True\nmp-763192,\"{'V': 6.0, 'O': 3.0, 'F': 15.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmp-695,\"{'Ti': 2.0, 'Co': 4.0}\",\"('Co', 'Ti')\",OTHERS,True\nmp-1208695,\"{'Ta': 9.0, 'V': 2.0, 'O': 25.0}\",\"('O', 'Ta', 'V')\",OTHERS,True\nmp-1175910,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-31116,\"{'La': 4.0, 'Sc': 4.0, 'O': 12.0}\",\"('La', 'O', 'Sc')\",OTHERS,True\nmp-1178537,\"{'Co': 6.0, 'C': 6.0, 'O': 21.0}\",\"('C', 'Co', 'O')\",OTHERS,True\nmp-1175280,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1834,\"{'Nd': 1.0, 'Al': 4.0}\",\"('Al', 'Nd')\",OTHERS,True\nmp-1095291,\"{'Li': 4.0, 'Sn': 2.0, 'Se': 6.0}\",\"('Li', 'Se', 'Sn')\",OTHERS,True\nmp-1208409,\"{'Ta': 6.0, 'Co': 2.0, 'S': 12.0}\",\"('Co', 'S', 'Ta')\",OTHERS,True\nmp-768597,\"{'Sr': 4.0, 'La': 4.0, 'Cl': 20.0}\",\"('Cl', 'La', 'Sr')\",OTHERS,True\nmp-867338,\"{'Ac': 1.0, 'Cd': 1.0, 'Ag': 2.0}\",\"('Ac', 'Ag', 'Cd')\",OTHERS,True\nmp-1190707,\"{'Tm': 2.0, 'Fe': 12.0, 'P': 7.0}\",\"('Fe', 'P', 'Tm')\",OTHERS,True\nmp-1113366,\"{'Cs': 1.0, 'Rb': 2.0, 'Pd': 1.0, 'F': 6.0}\",\"('Cs', 'F', 'Pd', 'Rb')\",OTHERS,True\nmp-849468,\"{'Li': 4.0, 'Fe': 3.0, 'Co': 3.0, 'Te': 2.0, 'O': 16.0}\",\"('Co', 'Fe', 'Li', 'O', 'Te')\",OTHERS,True\nmp-754020,\"{'Li': 2.0, 'Co': 2.0, 'Cu': 2.0, 'O': 8.0}\",\"('Co', 'Cu', 'Li', 'O')\",OTHERS,True\nmp-1218284,\"{'Sr': 2.0, 'Dy': 2.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Dy', 'O', 'Sr')\",OTHERS,True\nmp-1221971,\"{'Mg': 1.0, 'Zn': 3.0, 'S': 4.0}\",\"('Mg', 'S', 'Zn')\",OTHERS,True\nmp-1114421,\"{'Rb': 2.0, 'Li': 1.0, 'Lu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Li', 'Lu', 'Rb')\",OTHERS,True\nmp-9765,\"{'O': 14.0, 'Nd': 4.0, 'Pt': 4.0}\",\"('Nd', 'O', 'Pt')\",OTHERS,True\nmp-1074405,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-720104,\"{'Na': 8.0, 'Al': 6.0, 'Ge': 6.0, 'N': 2.0, 'O': 28.0}\",\"('Al', 'Ge', 'N', 'Na', 'O')\",OTHERS,True\nmp-1185546,\"{'Cs': 1.0, 'Rb': 2.0, 'Bi': 1.0}\",\"('Bi', 'Cs', 'Rb')\",OTHERS,True\nmp-1181383,\"{'K': 2.0, 'Co': 1.0, 'B': 12.0, 'O': 30.0}\",\"('B', 'Co', 'K', 'O')\",OTHERS,True\nmp-766168,\"{'Ti': 8.0, 'Sn': 2.0, 'O': 20.0}\",\"('O', 'Sn', 'Ti')\",OTHERS,True\nmp-1078736,\"{'Pr': 2.0, 'Ni': 4.0, 'Sb': 4.0}\",\"('Ni', 'Pr', 'Sb')\",OTHERS,True\nmp-1195793,\"{'Ba': 4.0, 'Fe': 4.0, 'P': 4.0, 'H': 4.0, 'O': 20.0}\",\"('Ba', 'Fe', 'H', 'O', 'P')\",OTHERS,True\nmp-542824,\"{'Ce': 3.0, 'Ag': 4.0, 'Sn': 4.0}\",\"('Ag', 'Ce', 'Sn')\",OTHERS,True\nmp-683793,\"{'Fe': 16.0, 'Te': 8.0, 'Mo': 4.0, 'C': 56.0, 'S': 8.0, 'O': 56.0}\",\"('C', 'Fe', 'Mo', 'O', 'S', 'Te')\",OTHERS,True\nmp-1187005,\"{'Si': 2.0, 'Ag': 6.0}\",\"('Ag', 'Si')\",OTHERS,True\nmp-1096299,\"{'Li': 2.0, 'Hg': 1.0, 'Sb': 1.0}\",\"('Hg', 'Li', 'Sb')\",OTHERS,True\nmp-1207770,\"{'Y': 10.0, 'Bi': 2.0, 'Pt': 4.0}\",\"('Bi', 'Pt', 'Y')\",OTHERS,True\nmp-778385,\"{'B': 24.0, 'H': 24.0, 'Se': 8.0, 'O': 72.0}\",\"('B', 'H', 'O', 'Se')\",OTHERS,True\nmp-979286,{'Xe': 1.0},\"('Xe',)\",OTHERS,True\nmp-1228771,\"{'Ba': 2.0, 'Fe': 10.0, 'Bi': 8.0, 'O': 30.0}\",\"('Ba', 'Bi', 'Fe', 'O')\",OTHERS,True\nmp-541879,\"{'Rb': 8.0, 'Ge': 8.0, 'S': 20.0}\",\"('Ge', 'Rb', 'S')\",OTHERS,True\nmp-1187731,\"{'Y': 2.0, 'Zn': 1.0, 'Hg': 1.0}\",\"('Hg', 'Y', 'Zn')\",OTHERS,True\nmp-1206803,\"{'Y': 2.0, 'C': 1.0, 'I': 2.0}\",\"('C', 'I', 'Y')\",OTHERS,True\nmp-1190708,\"{'Al': 12.0, 'Fe': 8.0, 'Si': 4.0}\",\"('Al', 'Fe', 'Si')\",OTHERS,True\nmp-1219347,\"{'Si': 1.0, 'Pb': 7.0, 'Cl': 2.0, 'O': 8.0}\",\"('Cl', 'O', 'Pb', 'Si')\",OTHERS,True\nmp-1246452,\"{'B': 24.0, 'C': 24.0, 'N': 56.0}\",\"('B', 'C', 'N')\",OTHERS,True\nmvc-11253,\"{'Ca': 2.0, 'Cr': 4.0, 'S': 8.0}\",\"('Ca', 'Cr', 'S')\",OTHERS,True\nmp-1093630,\"{'Li': 1.0, 'Ge': 2.0, 'Rh': 1.0}\",\"('Ge', 'Li', 'Rh')\",OTHERS,True\nmp-735556,\"{'Na': 4.0, 'Co': 2.0, 'H': 16.0, 'C': 4.0, 'O': 20.0}\",\"('C', 'Co', 'H', 'Na', 'O')\",OTHERS,True\nmp-1224984,\"{'Fe': 2.0, 'Co': 2.0, 'B': 2.0}\",\"('B', 'Co', 'Fe')\",OTHERS,True\nmp-1219453,\"{'Sr': 12.0, 'Ti': 4.0, 'Si': 16.0, 'O': 61.0}\",\"('O', 'Si', 'Sr', 'Ti')\",OTHERS,True\nmp-27989,\"{'C': 2.0, 'N': 2.0, 'Br': 2.0}\",\"('Br', 'C', 'N')\",OTHERS,True\nmp-1209723,\"{'Np': 2.0, 'Tl': 4.0, 'F': 12.0}\",\"('F', 'Np', 'Tl')\",OTHERS,True\nmp-30704,\"{'Ga': 6.0, 'Nb': 10.0}\",\"('Ga', 'Nb')\",OTHERS,True\nmp-1095964,\"{'Zn': 2.0, 'Ag': 1.0, 'Pd': 1.0}\",\"('Ag', 'Pd', 'Zn')\",OTHERS,True\nmp-554291,\"{'Cu': 8.0, 'Sb': 16.0, 'Cl': 8.0, 'O': 24.0}\",\"('Cl', 'Cu', 'O', 'Sb')\",OTHERS,True\nmp-1185389,\"{'Li': 1.0, 'Nd': 2.0, 'Rh': 1.0}\",\"('Li', 'Nd', 'Rh')\",OTHERS,True\nmp-1221814,\"{'Mn': 1.0, 'Fe': 5.0, 'O': 8.0}\",\"('Fe', 'Mn', 'O')\",OTHERS,True\nmp-1228492,\"{'Ca': 8.0, 'Fe': 16.0, 'Cu': 8.0, 'O': 40.0}\",\"('Ca', 'Cu', 'Fe', 'O')\",OTHERS,True\nmp-849273,\"{'Li': 4.0, 'Co': 4.0, 'O': 8.0}\",\"('Co', 'Li', 'O')\",OTHERS,True\nmp-19838,\"{'Si': 2.0, 'Cr': 2.0, 'Pu': 1.0}\",\"('Cr', 'Pu', 'Si')\",OTHERS,True\nmvc-12951,\"{'Mn': 4.0, 'Zn': 1.0, 'S': 8.0}\",\"('Mn', 'S', 'Zn')\",OTHERS,True\nmp-1177254,\"{'Li': 4.0, 'V': 2.0, 'Co': 3.0, 'Cu': 3.0, 'O': 16.0}\",\"('Co', 'Cu', 'Li', 'O', 'V')\",OTHERS,True\nmp-26241,\"{'Li': 4.0, 'O': 28.0, 'P': 8.0, 'V': 6.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmvc-8408,\"{'V': 4.0, 'Zn': 4.0, 'Ge': 8.0, 'O': 24.0}\",\"('Ge', 'O', 'V', 'Zn')\",OTHERS,True\nmp-582024,\"{'Cs': 12.0, 'Cu': 8.0, 'Cl': 20.0}\",\"('Cl', 'Cs', 'Cu')\",OTHERS,True\nmp-709066,\"{'Rb': 16.0, 'Li': 4.0, 'H': 12.0, 'S': 16.0, 'O': 64.0}\",\"('H', 'Li', 'O', 'Rb', 'S')\",OTHERS,True\nmp-972032,\"{'Tl': 2.0, 'I': 6.0, 'O': 18.0}\",\"('I', 'O', 'Tl')\",OTHERS,True\nmp-997032,\"{'Mg': 2.0, 'Au': 2.0, 'O': 4.0}\",\"('Au', 'Mg', 'O')\",OTHERS,True\nmp-1225357,\"{'Dy': 1.0, 'Al': 7.0, 'Fe': 5.0}\",\"('Al', 'Dy', 'Fe')\",OTHERS,True\nmp-1014212,{'Si': 1.0},\"('Si',)\",OTHERS,True\nmp-962057,\"{'Sr': 1.0, 'Ca': 1.0, 'Si': 1.0}\",\"('Ca', 'Si', 'Sr')\",OTHERS,True\nmp-1219143,\"{'Sm': 6.0, 'Mn': 1.0, 'Si': 2.0, 'S': 14.0}\",\"('Mn', 'S', 'Si', 'Sm')\",OTHERS,True\nmp-1186417,\"{'Pa': 1.0, 'Te': 2.0, 'Pd': 1.0}\",\"('Pa', 'Pd', 'Te')\",OTHERS,True\nmp-769720,\"{'La': 4.0, 'Ti': 6.0, 'O': 18.0}\",\"('La', 'O', 'Ti')\",OTHERS,True\nmp-757305,\"{'Li': 8.0, 'Ti': 4.0, 'P': 12.0, 'O': 40.0}\",\"('Li', 'O', 'P', 'Ti')\",OTHERS,True\nmp-684096,\"{'Bi': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Bi', 'O', 'P')\",OTHERS,True\nmp-19245,\"{'O': 6.0, 'Mn': 2.0, 'Ba': 1.0, 'La': 1.0}\",\"('Ba', 'La', 'Mn', 'O')\",OTHERS,True\nmp-767791,\"{'Mg': 5.0, 'Co': 19.0, 'O': 32.0}\",\"('Co', 'Mg', 'O')\",OTHERS,True\nmp-650178,\"{'Se': 40.0, 'S': 8.0, 'O': 24.0, 'F': 8.0}\",\"('F', 'O', 'S', 'Se')\",OTHERS,True\nmp-1212099,\"{'K': 4.0, 'La': 2.0, 'Ta': 12.0, 'Br': 30.0, 'O': 6.0}\",\"('Br', 'K', 'La', 'O', 'Ta')\",OTHERS,True\nmp-771326,\"{'Nb': 1.0, 'Fe': 5.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Nb', 'O', 'P')\",OTHERS,True\nmp-1186187,\"{'Na': 1.0, 'Tl': 2.0, 'Sn': 1.0}\",\"('Na', 'Sn', 'Tl')\",OTHERS,True\nmp-13396,\"{'Li': 1.0, 'Rh': 1.0, 'In': 2.0}\",\"('In', 'Li', 'Rh')\",OTHERS,True\nmp-756829,\"{'Li': 4.0, 'Fe': 3.0, 'Co': 1.0, 'O': 8.0}\",\"('Co', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-11469,\"{'Pr': 1.0, 'Hg': 1.0}\",\"('Hg', 'Pr')\",OTHERS,True\nmp-861878,\"{'Cd': 2.0, 'Ag': 1.0, 'Rh': 1.0}\",\"('Ag', 'Cd', 'Rh')\",OTHERS,True\nmp-12879,\"{'Si': 10.0, 'Rh': 6.0, 'Tb': 4.0}\",\"('Rh', 'Si', 'Tb')\",OTHERS,True\nmp-530546,\"{'O': 108.0, 'Si': 54.0}\",\"('O', 'Si')\",OTHERS,True\nmp-1184988,\"{'Li': 2.0, 'Sm': 1.0, 'Al': 1.0}\",\"('Al', 'Li', 'Sm')\",OTHERS,True\nmp-569496,\"{'Ce': 1.0, 'Si': 2.0, 'Au': 4.0}\",\"('Au', 'Ce', 'Si')\",OTHERS,True\nmp-18279,\"{'Cu': 2.0, 'Ge': 8.0, 'Zr': 4.0}\",\"('Cu', 'Ge', 'Zr')\",OTHERS,True\nmp-1200277,\"{'Cs': 4.0, 'Mg': 2.0, 'Se': 4.0, 'O': 28.0}\",\"('Cs', 'Mg', 'O', 'Se')\",OTHERS,True\nmp-20826,\"{'Cu': 2.0, 'Te': 2.0}\",\"('Cu', 'Te')\",OTHERS,True\nmp-20063,\"{'Li': 3.0, 'Ge': 4.0, 'Ce': 5.0}\",\"('Ce', 'Ge', 'Li')\",OTHERS,True\nmp-755697,\"{'V': 8.0, 'O': 12.0, 'F': 4.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmp-540050,\"{'Fe': 12.0, 'P': 12.0, 'O': 44.0}\",\"('Fe', 'O', 'P')\",OTHERS,True\nmvc-13015,\"{'Cu': 3.0, 'Sn': 4.0, 'O': 12.0}\",\"('Cu', 'O', 'Sn')\",OTHERS,True\nmp-1220425,\"{'Nb': 6.0, 'Bi': 1.0, 'Se': 8.0}\",\"('Bi', 'Nb', 'Se')\",OTHERS,True\nmp-1219917,\"{'Pd': 1.0, 'Rh': 1.0, 'Pb': 4.0}\",\"('Pb', 'Pd', 'Rh')\",OTHERS,True\nmp-1071078,\"{'Ni': 2.0, 'Se': 4.0}\",\"('Ni', 'Se')\",OTHERS,True\nmp-1114690,\"{'Rb': 3.0, 'Ir': 1.0, 'F': 6.0}\",\"('F', 'Ir', 'Rb')\",OTHERS,True\nmp-677308,\"{'Na': 2.0, 'Pr': 4.0, 'Cl': 12.0}\",\"('Cl', 'Na', 'Pr')\",OTHERS,True\nmp-1213319,\"{'Cs': 2.0, 'Pr': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Cs', 'O', 'Pr', 'W')\",OTHERS,True\nmvc-6921,\"{'Mg': 4.0, 'Mn': 8.0, 'O': 16.0}\",\"('Mg', 'Mn', 'O')\",OTHERS,True\nmp-1213830,\"{'Ce': 6.0, 'W': 2.0, 'Cl': 6.0, 'O': 12.0}\",\"('Ce', 'Cl', 'O', 'W')\",OTHERS,True\nmp-758538,\"{'Li': 8.0, 'V': 14.0, 'O': 24.0}\",\"('Li', 'O', 'V')\",OTHERS,True\nmp-1095082,\"{'In': 2.0, 'Ru': 6.0}\",\"('In', 'Ru')\",OTHERS,True\nmp-1220828,\"{'Nb': 16.0, 'Pb': 12.0, 'O': 48.0, 'F': 8.0}\",\"('F', 'Nb', 'O', 'Pb')\",OTHERS,True\nmp-1206296,\"{'Y': 4.0, 'Co': 2.0, 'Si': 4.0}\",\"('Co', 'Si', 'Y')\",OTHERS,True\nmp-1210619,\"{'Na': 24.0, 'Nd': 8.0, 'P': 16.0, 'O': 64.0}\",\"('Na', 'Nd', 'O', 'P')\",OTHERS,True\nmp-768497,\"{'Li': 6.0, 'Mn': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,True\nmp-697962,\"{'Eu': 6.0, 'Mg': 7.0, 'H': 26.0}\",\"('Eu', 'H', 'Mg')\",OTHERS,True\nmp-744703,\"{'Mn': 4.0, 'Cu': 4.0, 'H': 40.0, 'Se': 8.0, 'Cl': 8.0, 'O': 40.0}\",\"('Cl', 'Cu', 'H', 'Mn', 'O', 'Se')\",OTHERS,True\nmp-1016846,\"{'Ti': 1.0, 'Cd': 1.0, 'O': 3.0}\",\"('Cd', 'O', 'Ti')\",OTHERS,True\nmp-773192,\"{'Gd': 4.0, 'W': 6.0, 'O': 24.0}\",\"('Gd', 'O', 'W')\",OTHERS,True\nmp-30042,\"{'Li': 4.0, 'Ge': 2.0, 'Ce': 2.0}\",\"('Ce', 'Ge', 'Li')\",OTHERS,True\nmp-1246423,\"{'B': 4.0, 'Mo': 4.0, 'N': 12.0}\",\"('B', 'Mo', 'N')\",OTHERS,True\nmp-753148,\"{'Li': 2.0, 'Cu': 7.0, 'F': 16.0}\",\"('Cu', 'F', 'Li')\",OTHERS,True\nmp-1183854,\"{'Ce': 1.0, 'Pm': 3.0}\",\"('Ce', 'Pm')\",OTHERS,True\nmp-1196825,\"{'Zr': 4.0, 'H': 48.0, 'N': 20.0, 'F': 16.0}\",\"('F', 'H', 'N', 'Zr')\",OTHERS,True\nmp-1105795,\"{'Cd': 4.0, 'N': 4.0, 'F': 12.0}\",\"('Cd', 'F', 'N')\",OTHERS,True\nmp-17252,\"{'Cu': 6.0, 'Ge': 3.0, 'Se': 12.0, 'Ba': 3.0}\",\"('Ba', 'Cu', 'Ge', 'Se')\",OTHERS,True\nmp-1176130,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-655580,\"{'Ce': 4.0, 'Cu': 16.0, 'Sn': 4.0}\",\"('Ce', 'Cu', 'Sn')\",OTHERS,True\nmp-1100342,\"{'Ca': 2.0, 'Sn': 3.0, 'S': 8.0}\",\"('Ca', 'S', 'Sn')\",OTHERS,True\nmp-22037,\"{'O': 8.0, 'Cu': 6.0, 'Pb': 1.0}\",\"('Cu', 'O', 'Pb')\",OTHERS,True\nmp-635393,\"{'Ca': 2.0, 'P': 1.0, 'I': 1.0}\",\"('Ca', 'I', 'P')\",OTHERS,True\nmp-567365,{'Kr': 2.0},\"('Kr',)\",OTHERS,True\nmp-1229330,\"{'Bi': 1.0, 'W': 18.0, 'O': 60.0}\",\"('Bi', 'O', 'W')\",OTHERS,True\nmp-17146,\"{'S': 20.0, 'K': 8.0}\",\"('K', 'S')\",OTHERS,True\nmp-1071448,\"{'Ce': 2.0, 'Ga': 2.0, 'Co': 2.0}\",\"('Ce', 'Co', 'Ga')\",OTHERS,True\nmp-1209227,\"{'Rb': 1.0, 'Ca': 1.0, 'Br': 3.0}\",\"('Br', 'Ca', 'Rb')\",OTHERS,True\nmvc-8943,\"{'Zn': 4.0, 'Bi': 12.0, 'O': 28.0}\",\"('Bi', 'O', 'Zn')\",OTHERS,True\nmp-1185748,\"{'Mg': 4.0, 'Ag': 2.0}\",\"('Ag', 'Mg')\",OTHERS,True\nmp-3960,\"{'O': 4.0, 'Ca': 1.0, 'U': 1.0}\",\"('Ca', 'O', 'U')\",OTHERS,True\nmp-1112199,\"{'K': 2.0, 'In': 1.0, 'Hg': 1.0, 'F': 6.0}\",\"('F', 'Hg', 'In', 'K')\",OTHERS,True\nmp-1246024,\"{'Sr': 28.0, 'Hf': 4.0, 'N': 24.0}\",\"('Hf', 'N', 'Sr')\",OTHERS,True\nmvc-13995,\"{'Y': 2.0, 'Ti': 2.0, 'O': 6.0}\",\"('O', 'Ti', 'Y')\",OTHERS,True\nmp-1222406,\"{'Li': 1.0, 'Zr': 2.0, 'Pb': 1.0}\",\"('Li', 'Pb', 'Zr')\",OTHERS,True\nmp-1106139,\"{'In': 8.0, 'Bi': 6.0, 'Pb': 2.0}\",\"('Bi', 'In', 'Pb')\",OTHERS,True\nmp-1214547,\"{'Ba': 4.0, 'Mn': 4.0, 'V': 4.0, 'F': 28.0}\",\"('Ba', 'F', 'Mn', 'V')\",OTHERS,True\nmp-1208575,\"{'Tb': 2.0, 'Cl': 6.0, 'O': 24.0}\",\"('Cl', 'O', 'Tb')\",OTHERS,True\nmp-561973,\"{'K': 4.0, 'Te': 8.0, 'O': 24.0}\",\"('K', 'O', 'Te')\",OTHERS,True\nmp-1218693,\"{'Sr': 4.0, 'V': 6.0, 'Bi': 6.0, 'O': 28.0}\",\"('Bi', 'O', 'Sr', 'V')\",OTHERS,True\nmp-1207120,\"{'Ba': 2.0, 'Li': 1.0, 'I': 1.0, 'O': 6.0}\",\"('Ba', 'I', 'Li', 'O')\",OTHERS,True\nmp-1186295,\"{'Nd': 1.0, 'Cd': 1.0, 'Ag': 2.0}\",\"('Ag', 'Cd', 'Nd')\",OTHERS,True\nmp-2360,\"{'Ca': 2.0, 'Ge': 2.0}\",\"('Ca', 'Ge')\",OTHERS,True\nmvc-13461,\"{'Cr': 2.0, 'N': 4.0}\",\"('Cr', 'N')\",OTHERS,True\nmp-30893,\"{'Sr': 8.0, 'Bi': 6.0}\",\"('Bi', 'Sr')\",OTHERS,True\nmp-1102441,\"{'Re': 4.0, 'N': 8.0}\",\"('N', 'Re')\",OTHERS,True\nmp-1252764,\"{'Al': 2.0, 'F': 6.0}\",\"('Al', 'F')\",OTHERS,True\nmp-1020616,\"{'Rb': 12.0, 'Mg': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Mg', 'O', 'P', 'Rb')\",OTHERS,True\nmp-1214060,\"{'Ca': 2.0, 'Mg': 10.0, 'P': 6.0, 'H': 2.0, 'C': 2.0, 'O': 32.0}\",\"('C', 'Ca', 'H', 'Mg', 'O', 'P')\",OTHERS,True\nmp-765485,\"{'Zr': 15.0, 'V': 1.0, 'O': 32.0}\",\"('O', 'V', 'Zr')\",OTHERS,True\nmp-1214042,\"{'Ca': 6.0, 'Ge': 8.0, 'Au': 14.0}\",\"('Au', 'Ca', 'Ge')\",OTHERS,True\nmp-9018,\"{'Li': 4.0, 'O': 16.0, 'P': 4.0, 'Cd': 4.0}\",\"('Cd', 'Li', 'O', 'P')\",OTHERS,True\nmp-1096047,\"{'Sc': 1.0, 'Cu': 1.0, 'Au': 2.0}\",\"('Au', 'Cu', 'Sc')\",OTHERS,True\nmp-29704,\"{'O': 32.0, 'S': 16.0, 'Cs': 8.0}\",\"('Cs', 'O', 'S')\",OTHERS,True\nmp-1029118,\"{'Te': 2.0, 'Mo': 1.0, 'W': 3.0, 'S': 6.0}\",\"('Mo', 'S', 'Te', 'W')\",OTHERS,True\nmp-1228478,\"{'Ba': 12.0, 'Ti': 9.0, 'Pt': 3.0, 'O': 36.0}\",\"('Ba', 'O', 'Pt', 'Ti')\",OTHERS,True\nmvc-928,\"{'Ba': 1.0, 'Ca': 1.0, 'V': 4.0, 'O': 8.0}\",\"('Ba', 'Ca', 'O', 'V')\",OTHERS,True\nmp-766488,\"{'Li': 6.0, 'Mn': 6.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-626315,\"{'Sr': 2.0, 'H': 32.0, 'O': 20.0}\",\"('H', 'O', 'Sr')\",OTHERS,True\nmp-758372,\"{'Li': 4.0, 'Co': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'O', 'Si')\",OTHERS,True\nmp-554335,\"{'K': 4.0, 'Cu': 2.0, 'H': 24.0, 'Se': 4.0, 'O': 28.0}\",\"('Cu', 'H', 'K', 'O', 'Se')\",OTHERS,True\nmp-1094512,\"{'Mg': 8.0, 'Sb': 4.0}\",\"('Mg', 'Sb')\",OTHERS,True\nmp-1014226,\"{'Zr': 6.0, 'Zn': 2.0, 'N': 2.0}\",\"('N', 'Zn', 'Zr')\",OTHERS,True\nmp-850798,\"{'Li': 8.0, 'Mn': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,True\nmp-867571,\"{'Li': 8.0, 'Mn': 8.0, 'P': 8.0, 'O': 36.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,True\nmp-540011,\"{'Li': 4.0, 'Ni': 2.0, 'P': 10.0, 'O': 30.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,True\nmp-534870,\"{'B': 2.0, 'Ga': 6.0, 'H': 8.0, 'Na': 8.0, 'O': 24.0, 'Si': 6.0}\",\"('B', 'Ga', 'H', 'Na', 'O', 'Si')\",OTHERS,True\nmp-1104102,\"{'Yb': 2.0, 'Ni': 8.0, 'As': 4.0}\",\"('As', 'Ni', 'Yb')\",OTHERS,True\nmp-745163,\"{'Mn': 2.0, 'Cu': 5.0, 'P': 4.0, 'H': 2.0, 'O': 18.0}\",\"('Cu', 'H', 'Mn', 'O', 'P')\",OTHERS,True\nmp-1226098,\"{'Co': 1.0, 'Ni': 1.0, 'P': 2.0, 'S': 6.0}\",\"('Co', 'Ni', 'P', 'S')\",OTHERS,True\nmp-1186958,\"{'Sc': 2.0, 'Cu': 1.0, 'Rh': 1.0}\",\"('Cu', 'Rh', 'Sc')\",OTHERS,True\nmp-758910,\"{'Li': 12.0, 'Fe': 6.0, 'Si': 12.0, 'O': 36.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,True\nmp-1194253,\"{'Hf': 18.0, 'W': 8.0, 'Se': 2.0}\",\"('Hf', 'Se', 'W')\",OTHERS,True\nmvc-2883,\"{'Sb': 10.0, 'Te': 6.0, 'O': 36.0}\",\"('O', 'Sb', 'Te')\",OTHERS,True\nmp-1226198,\"{'Co': 8.0, 'Cu': 6.0, 'Ni': 4.0, 'Se': 24.0}\",\"('Co', 'Cu', 'Ni', 'Se')\",OTHERS,True\nmp-22649,\"{'O': 12.0, 'V': 4.0, 'Cd': 4.0}\",\"('Cd', 'O', 'V')\",OTHERS,True\nmp-1077741,\"{'Yb': 1.0, 'Cu': 4.0, 'Ag': 1.0}\",\"('Ag', 'Cu', 'Yb')\",OTHERS,True\nmp-765189,\"{'Li': 3.0, 'V': 3.0, 'O': 5.0, 'F': 3.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,True\nmp-769096,\"{'Mn': 6.0, 'P': 24.0}\",\"('Mn', 'P')\",OTHERS,True\nmp-637614,\"{'Zn': 3.0, 'In': 2.0, 'S': 6.0}\",\"('In', 'S', 'Zn')\",OTHERS,True\nmp-554275,\"{'Na': 16.0, 'V': 4.0, 'H': 4.0, 'O': 20.0}\",\"('H', 'Na', 'O', 'V')\",OTHERS,True\nmp-766558,\"{'Na': 4.0, 'Mn': 12.0, 'O': 24.0}\",\"('Mn', 'Na', 'O')\",OTHERS,True\nmvc-13560,\"{'Ca': 1.0, 'V': 4.0, 'S': 8.0}\",\"('Ca', 'S', 'V')\",OTHERS,True\nmp-2961,\"{'Mg': 2.0, 'Si': 2.0, 'P': 4.0}\",\"('Mg', 'P', 'Si')\",OTHERS,True\nmp-1195435,\"{'Na': 4.0, 'Er': 4.0, 'B': 4.0, 'Te': 2.0, 'O': 20.0}\",\"('B', 'Er', 'Na', 'O', 'Te')\",OTHERS,True\nmp-974368,\"{'Rh': 3.0, 'Pb': 1.0}\",\"('Pb', 'Rh')\",OTHERS,True\nmp-1189706,\"{'Cd': 4.0, 'Tc': 4.0, 'O': 12.0}\",\"('Cd', 'O', 'Tc')\",OTHERS,True\nmp-1207495,\"{'Zr': 12.0, 'Ge': 2.0, 'I': 28.0}\",\"('Ge', 'I', 'Zr')\",OTHERS,True\nmp-1093645,\"{'Ti': 2.0, 'Al': 1.0, 'W': 1.0}\",\"('Al', 'Ti', 'W')\",OTHERS,True\nmp-560282,\"{'K': 8.0, 'Ba': 4.0, 'N': 16.0, 'O': 32.0}\",\"('Ba', 'K', 'N', 'O')\",OTHERS,True\nmvc-16790,\"{'Y': 2.0, 'Ti': 4.0, 'S': 8.0}\",\"('S', 'Ti', 'Y')\",OTHERS,True\nmp-1205595,\"{'Ba': 2.0, 'Tm': 1.0, 'Mo': 1.0, 'O': 6.0}\",\"('Ba', 'Mo', 'O', 'Tm')\",OTHERS,True\nmp-1079224,\"{'V': 6.0, 'As': 2.0, 'N': 2.0}\",\"('As', 'N', 'V')\",OTHERS,True\nmp-996960,\"{'Ag': 2.0, 'N': 2.0, 'O': 4.0}\",\"('Ag', 'N', 'O')\",OTHERS,True\nmp-1221014,\"{'Nb': 24.0, 'I': 42.0, 'Br': 2.0}\",\"('Br', 'I', 'Nb')\",OTHERS,True\nmp-758248,\"{'Li': 4.0, 'Co': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,True\nmp-16066,\"{'P': 4.0, 'Ni': 8.0, 'Yb': 2.0}\",\"('Ni', 'P', 'Yb')\",OTHERS,True\nmp-1174032,\"{'Li': 5.0, 'Mn': 1.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1210319,\"{'Nd': 4.0, 'Fe': 4.0, 'Ge': 8.0, 'O': 28.0}\",\"('Fe', 'Ge', 'Nd', 'O')\",OTHERS,True\nmvc-10716,\"{'Sr': 4.0, 'Y': 2.0, 'Ti': 4.0, 'Ga': 2.0, 'O': 14.0}\",\"('Ga', 'O', 'Sr', 'Ti', 'Y')\",OTHERS,True\nmp-23358,\"{'Hg': 10.0, 'Cl': 4.0, 'O': 8.0}\",\"('Cl', 'Hg', 'O')\",OTHERS,True\nmp-772072,\"{'Li': 4.0, 'Fe': 2.0, 'Si': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Fe', 'Li', 'O', 'Si')\",OTHERS,True\nmp-1239271,\"{'Nb': 1.0, 'Cr': 3.0, 'Ag': 2.0, 'S': 8.0}\",\"('Ag', 'Cr', 'Nb', 'S')\",OTHERS,True\nmp-1212105,\"{'Ho': 1.0, 'Al': 3.0, 'B': 4.0, 'O': 12.0}\",\"('Al', 'B', 'Ho', 'O')\",OTHERS,True\nmp-558956,\"{'K': 8.0, 'V': 4.0, 'P': 4.0, 'O': 24.0}\",\"('K', 'O', 'P', 'V')\",OTHERS,True\nmp-650598,\"{'U': 8.0, 'Pb': 24.0, 'O': 48.0}\",\"('O', 'Pb', 'U')\",OTHERS,True\nmp-1218724,\"{'Sr': 6.0, 'La': 2.0, 'V': 6.0, 'O': 24.0}\",\"('La', 'O', 'Sr', 'V')\",OTHERS,True\nmp-989616,\"{'Ca': 2.0, 'W': 2.0, 'N': 6.0}\",\"('Ca', 'N', 'W')\",OTHERS,True\nmp-1198803,\"{'Sc': 20.0, 'Ge': 16.0}\",\"('Ge', 'Sc')\",OTHERS,True\nmp-1111567,\"{'K': 2.0, 'Sc': 1.0, 'Tl': 1.0, 'F': 6.0}\",\"('F', 'K', 'Sc', 'Tl')\",OTHERS,True\nmp-979028,\"{'Sm': 2.0, 'Mg': 1.0}\",\"('Mg', 'Sm')\",OTHERS,True\nmp-768638,\"{'Dy': 6.0, 'Sb': 10.0, 'O': 24.0}\",\"('Dy', 'O', 'Sb')\",OTHERS,True\nmp-778808,\"{'Li': 24.0, 'La': 12.0, 'Nb': 8.0, 'O': 48.0}\",\"('La', 'Li', 'Nb', 'O')\",OTHERS,True\nmp-867110,\"{'Sc': 2.0, 'Co': 1.0, 'Os': 1.0}\",\"('Co', 'Os', 'Sc')\",OTHERS,True\nmp-973203,\"{'Sb': 3.0, 'Mo': 1.0}\",\"('Mo', 'Sb')\",OTHERS,True\nmp-761257,\"{'Li': 4.0, 'Fe': 8.0, 'O': 2.0, 'F': 16.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-24103,\"{'H': 24.0, 'N': 4.0, 'O': 4.0, 'Cu': 2.0, 'Br': 8.0}\",\"('Br', 'Cu', 'H', 'N', 'O')\",OTHERS,True\nmp-756131,\"{'Sr': 4.0, 'Ca': 2.0, 'I': 12.0}\",\"('Ca', 'I', 'Sr')\",OTHERS,True\nmp-1223416,\"{'La': 2.0, 'Mn': 1.0, 'Pb': 1.0, 'O': 9.0}\",\"('La', 'Mn', 'O', 'Pb')\",OTHERS,True\nmp-772850,\"{'La': 8.0, 'Hf': 8.0, 'O': 28.0}\",\"('Hf', 'La', 'O')\",OTHERS,True\nmp-760076,\"{'Li': 10.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-1198260,\"{'Ce': 6.0, 'Ge': 26.0, 'Ir': 8.0}\",\"('Ce', 'Ge', 'Ir')\",OTHERS,True\nmp-1194197,\"{'La': 12.0, 'Si': 4.0, 'N': 16.0, 'F': 4.0}\",\"('F', 'La', 'N', 'Si')\",OTHERS,True\nmp-760293,\"{'Li': 2.0, 'Mn': 4.0, 'F': 10.0}\",\"('F', 'Li', 'Mn')\",OTHERS,True\nmp-753455,\"{'Bi': 4.0, 'O': 4.0, 'F': 12.0}\",\"('Bi', 'F', 'O')\",OTHERS,True\nmp-1205237,\"{'Ti': 12.0, 'C': 240.0, 'Cl': 48.0}\",\"('C', 'Cl', 'Ti')\",OTHERS,True\nmp-863421,\"{'Li': 12.0, 'V': 6.0, 'Si': 12.0, 'O': 36.0}\",\"('Li', 'O', 'Si', 'V')\",OTHERS,True\nmvc-5503,\"{'Ca': 6.0, 'Co': 12.0, 'O': 24.0}\",\"('Ca', 'Co', 'O')\",OTHERS,True\nmp-1070925,\"{'La': 2.0, 'P': 2.0, 'Rh': 2.0}\",\"('La', 'P', 'Rh')\",OTHERS,True\nmp-752795,\"{'Co': 6.0, 'O': 5.0, 'F': 7.0}\",\"('Co', 'F', 'O')\",OTHERS,True\nmp-766500,\"{'Li': 10.0, 'Mn': 6.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-567967,\"{'Li': 4.0, 'Ga': 4.0, 'I': 16.0}\",\"('Ga', 'I', 'Li')\",OTHERS,True\nmp-32959,\"{'H': 4.0, 'O': 2.0}\",\"('H', 'O')\",OTHERS,True\nmvc-8032,\"{'Zn': 3.0, 'Fe': 4.0, 'Mo': 6.0, 'O': 24.0}\",\"('Fe', 'Mo', 'O', 'Zn')\",OTHERS,True\nmp-36150,\"{'Sm': 4.0, 'Tm': 2.0, 'S': 8.0}\",\"('S', 'Sm', 'Tm')\",OTHERS,True\nmp-1111893,\"{'Na': 3.0, 'Ga': 1.0, 'Cl': 6.0}\",\"('Cl', 'Ga', 'Na')\",OTHERS,True\nmp-675048,\"{'Sr': 6.0, 'Nd': 8.0, 'O': 18.0}\",\"('Nd', 'O', 'Sr')\",OTHERS,True\nmp-603930,\"{'Mg': 4.0, 'Si': 4.0, 'O': 12.0}\",\"('Mg', 'O', 'Si')\",OTHERS,True\nmp-9468,\"{'O': 56.0, 'Mg': 2.0, 'P': 14.0, 'K': 2.0, 'Ca': 18.0}\",\"('Ca', 'K', 'Mg', 'O', 'P')\",OTHERS,True\nmp-1187592,\"{'Tc': 6.0, 'Pb': 2.0}\",\"('Pb', 'Tc')\",OTHERS,True\nmp-4343,\"{'Mn': 2.0, 'As': 2.0, 'Sr': 1.0}\",\"('As', 'Mn', 'Sr')\",OTHERS,True\nmp-1097284,\"{'Ag': 1.0, 'Sn': 1.0, 'Rh': 2.0}\",\"('Ag', 'Rh', 'Sn')\",OTHERS,True\nmp-1114648,\"{'Rb': 2.0, 'In': 1.0, 'As': 1.0, 'Cl': 6.0}\",\"('As', 'Cl', 'In', 'Rb')\",OTHERS,True\nmp-1218046,\"{'Ta': 2.0, 'Co': 8.0, 'Si': 2.0}\",\"('Co', 'Si', 'Ta')\",OTHERS,True\nmp-975109,\"{'Rb': 2.0, 'Na': 6.0}\",\"('Na', 'Rb')\",OTHERS,True\nmp-755904,\"{'Li': 4.0, 'V': 4.0, 'F': 16.0}\",\"('F', 'Li', 'V')\",OTHERS,True\nmp-774589,\"{'Ti': 3.0, 'Mn': 2.0, 'V': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Mn', 'O', 'P', 'Ti', 'V')\",OTHERS,True\nmp-1102662,\"{'Ca': 4.0, 'Mg': 4.0, 'Pd': 4.0}\",\"('Ca', 'Mg', 'Pd')\",OTHERS,True\nmp-615789,\"{'Ba': 8.0, 'Cu': 12.0, 'O': 24.0}\",\"('Ba', 'Cu', 'O')\",OTHERS,True\nmp-974690,\"{'Rb': 2.0, 'Cu': 1.0, 'Cl': 4.0}\",\"('Cl', 'Cu', 'Rb')\",OTHERS,True\nmp-1180949,\"{'K': 1.0, 'Fe': 3.0, 'S': 2.0, 'O': 14.0}\",\"('Fe', 'K', 'O', 'S')\",OTHERS,True\nmp-31502,\"{'Sc': 2.0, 'Cd': 14.0}\",\"('Cd', 'Sc')\",OTHERS,True\nmp-1183604,\"{'Ca': 2.0, 'Eu': 6.0}\",\"('Ca', 'Eu')\",OTHERS,True\nmp-571598,\"{'Ga': 6.0, 'Au': 21.0}\",\"('Au', 'Ga')\",OTHERS,True\nmp-17558,\"{'Ca': 10.0, 'Ga': 4.0, 'As': 12.0}\",\"('As', 'Ca', 'Ga')\",OTHERS,True\nmp-1012879,\"{'Li': 12.0, 'Cr': 8.0, 'Ge': 12.0, 'O': 48.0}\",\"('Cr', 'Ge', 'Li', 'O')\",OTHERS,True\nmp-695285,\"{'Sr': 2.0, 'Al': 2.0, 'Si': 10.0, 'N': 14.0, 'O': 4.0}\",\"('Al', 'N', 'O', 'Si', 'Sr')\",OTHERS,True\nmp-1191492,\"{'La': 8.0, 'P': 8.0, 'S': 8.0}\",\"('La', 'P', 'S')\",OTHERS,True\nmp-979265,\"{'Ta': 2.0, 'C': 1.0, 'N': 3.0}\",\"('C', 'N', 'Ta')\",OTHERS,True\nmp-7881,\"{'Ge': 2.0, 'Sr': 1.0, 'Cd': 2.0}\",\"('Cd', 'Ge', 'Sr')\",OTHERS,True\nmp-1094293,\"{'Sr': 6.0, 'Mg': 2.0}\",\"('Mg', 'Sr')\",OTHERS,True\nmp-1211984,\"{'La': 12.0, 'Ni': 6.0, 'Pb': 1.0}\",\"('La', 'Ni', 'Pb')\",OTHERS,True\nmp-774353,\"{'Li': 3.0, 'Ti': 1.0, 'Ni': 2.0, 'O': 6.0}\",\"('Li', 'Ni', 'O', 'Ti')\",OTHERS,True\nmp-696291,\"{'Zn': 2.0, 'H': 8.0, 'N': 4.0, 'O': 16.0}\",\"('H', 'N', 'O', 'Zn')\",OTHERS,True\nmp-772177,\"{'Li': 2.0, 'Fe': 3.0, 'Cu': 1.0, 'O': 8.0}\",\"('Cu', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-1075761,\"{'Mg': 10.0, 'Si': 18.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-978847,\"{'Sr': 1.0, 'Ga': 1.0, 'Ge': 1.0, 'H': 1.0}\",\"('Ga', 'Ge', 'H', 'Sr')\",OTHERS,True\nmp-1192592,\"{'Ce': 6.0, 'Mg': 23.0, 'Sb': 1.0}\",\"('Ce', 'Mg', 'Sb')\",OTHERS,True\nmp-765724,\"{'V': 6.0, 'F': 24.0}\",\"('F', 'V')\",OTHERS,True\nmp-865334,\"{'Lu': 2.0, 'Ni': 1.0, 'Os': 1.0}\",\"('Lu', 'Ni', 'Os')\",OTHERS,True\nmp-4103,\"{'O': 14.0, 'Sr': 4.0, 'Sb': 4.0}\",\"('O', 'Sb', 'Sr')\",OTHERS,True\nmp-773170,\"{'Cr': 6.0, 'Sb': 2.0, 'O': 16.0}\",\"('Cr', 'O', 'Sb')\",OTHERS,True\nmp-756710,\"{'Cr': 3.0, 'Fe': 2.0, 'O': 8.0}\",\"('Cr', 'Fe', 'O')\",OTHERS,True\nmp-17394,\"{'O': 16.0, 'Na': 4.0, 'Ge': 4.0, 'Y': 4.0}\",\"('Ge', 'Na', 'O', 'Y')\",OTHERS,True\nmp-26198,\"{'Co': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Co', 'O', 'P')\",OTHERS,True\nmvc-13133,\"{'Cu': 2.0, 'Sn': 1.0, 'Se': 4.0}\",\"('Cu', 'Se', 'Sn')\",OTHERS,True\nmp-759215,\"{'Li': 6.0, 'Mg': 1.0, 'Ni': 12.0, 'O': 26.0}\",\"('Li', 'Mg', 'Ni', 'O')\",OTHERS,True\nmp-1183186,\"{'As': 1.0, 'Pt': 3.0}\",\"('As', 'Pt')\",OTHERS,True\nmp-1078898,\"{'Gd': 2.0, 'B': 4.0, 'C': 4.0}\",\"('B', 'C', 'Gd')\",OTHERS,True\nmp-25208,\"{'O': 8.0, 'Bi': 4.0}\",\"('Bi', 'O')\",OTHERS,True\nmp-561490,\"{'Pd': 2.0, 'Se': 2.0, 'O': 8.0}\",\"('O', 'Pd', 'Se')\",OTHERS,True\nmp-777668,\"{'Li': 4.0, 'Ti': 3.0, 'Co': 3.0, 'Sn': 2.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'Sn', 'Ti')\",OTHERS,True\nmp-779064,\"{'Li': 8.0, 'Fe': 2.0, 'O': 2.0, 'F': 10.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-1077889,\"{'Ir': 2.0, 'C': 4.0}\",\"('C', 'Ir')\",OTHERS,True\nmp-568313,\"{'Si': 2.0, 'Se': 4.0}\",\"('Se', 'Si')\",OTHERS,True\nmp-1112080,\"{'K': 2.0, 'Ta': 1.0, 'Ag': 1.0, 'I': 6.0}\",\"('Ag', 'I', 'K', 'Ta')\",OTHERS,True\nmp-1218943,\"{'Sr': 10.0, 'Cu': 5.0, 'Mo': 3.0, 'W': 2.0, 'O': 30.0}\",\"('Cu', 'Mo', 'O', 'Sr', 'W')\",OTHERS,True\nmp-1266342,\"{'Na': 11.0, 'Zr': 8.0, 'Si': 7.0, 'P': 5.0, 'O': 48.0}\",\"('Na', 'O', 'P', 'Si', 'Zr')\",OTHERS,True\nmp-1193542,\"{'Li': 3.0, 'Mn': 3.0, 'V': 3.0, 'F': 18.0}\",\"('F', 'Li', 'Mn', 'V')\",OTHERS,True\nmp-1197580,\"{'Li': 12.0, 'Ca': 34.0, 'Hg': 18.0}\",\"('Ca', 'Hg', 'Li')\",OTHERS,True\nmp-1017555,\"{'Cs': 1.0, 'Be': 1.0, 'F': 3.0}\",\"('Be', 'Cs', 'F')\",OTHERS,True\nmp-765010,\"{'Li': 6.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-772568,\"{'Li': 6.0, 'Cr': 12.0, 'O': 39.0}\",\"('Cr', 'Li', 'O')\",OTHERS,True\nmp-1193543,\"{'Nb': 8.0, 'Ni': 2.0, 'Se': 16.0}\",\"('Nb', 'Ni', 'Se')\",OTHERS,True\nmp-1104326,\"{'Ho': 2.0, 'V': 2.0, 'O': 8.0}\",\"('Ho', 'O', 'V')\",OTHERS,True\nmp-559663,\"{'Li': 2.0, 'F': 12.0, 'Ni': 2.0, 'Sr': 2.0}\",\"('F', 'Li', 'Ni', 'Sr')\",OTHERS,True\nmp-1187073,{'Sr': 3.0},\"('Sr',)\",OTHERS,True\nmp-1222755,\"{'La': 1.0, 'Y': 1.0, 'Mn': 4.0, 'Si': 4.0}\",\"('La', 'Mn', 'Si', 'Y')\",OTHERS,True\nmp-1244901,\"{'V': 30.0, 'O': 75.0}\",\"('O', 'V')\",OTHERS,True\nmp-1210151,\"{'Nd': 6.0, 'Re': 4.0, 'O': 18.0}\",\"('Nd', 'O', 'Re')\",OTHERS,True\nmp-774451,\"{'Li': 4.0, 'Mn': 3.0, 'Fe': 2.0, 'Co': 3.0, 'O': 16.0}\",\"('Co', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1069825,\"{'Pr': 1.0, 'Al': 3.0, 'Cu': 1.0}\",\"('Al', 'Cu', 'Pr')\",OTHERS,True\nmp-1247468,\"{'Mg': 10.0, 'Co': 2.0, 'N': 8.0}\",\"('Co', 'Mg', 'N')\",OTHERS,True\nmp-4895,\"{'As': 2.0, 'Te': 2.0, 'U': 2.0}\",\"('As', 'Te', 'U')\",OTHERS,True\nmp-1224472,\"{'Ho': 30.0, 'Si': 18.0, 'C': 2.0}\",\"('C', 'Ho', 'Si')\",OTHERS,True\nmp-757838,\"{'Li': 4.0, 'Sn': 4.0, 'P': 12.0, 'O': 36.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,True\nmp-543029,\"{'La': 2.0, 'I': 2.0, 'Te': 1.0}\",\"('I', 'La', 'Te')\",OTHERS,True\nmp-1068559,\"{'La': 1.0, 'Co': 1.0, 'Si': 3.0}\",\"('Co', 'La', 'Si')\",OTHERS,True\nmp-1180580,\"{'Li': 1.0, 'H': 1.0, 'F': 2.0}\",\"('F', 'H', 'Li')\",OTHERS,True\nmp-1187698,\"{'V': 1.0, 'Zn': 1.0, 'Co': 2.0}\",\"('Co', 'V', 'Zn')\",OTHERS,True\nmp-7130,\"{'C': 1.0, 'Sc': 1.0, 'Ru': 3.0}\",\"('C', 'Ru', 'Sc')\",OTHERS,True\nmp-696152,\"{'Cu': 1.0, 'Sn': 1.0, 'H': 12.0, 'N': 2.0, 'O': 6.0}\",\"('Cu', 'H', 'N', 'O', 'Sn')\",OTHERS,True\nmp-1183208,\"{'Al': 1.0, 'Ga': 3.0}\",\"('Al', 'Ga')\",OTHERS,True\nmp-1206182,\"{'La': 2.0, 'C': 2.0, 'I': 2.0}\",\"('C', 'I', 'La')\",OTHERS,True\nmp-1216113,\"{'Y': 4.0, 'Mn': 1.0, 'S': 7.0}\",\"('Mn', 'S', 'Y')\",OTHERS,True\nmp-1094665,\"{'Li': 1.0, 'Mg': 3.0}\",\"('Li', 'Mg')\",OTHERS,True\nmp-1186627,\"{'Pm': 1.0, 'Pr': 1.0, 'Hg': 2.0}\",\"('Hg', 'Pm', 'Pr')\",OTHERS,True\nmp-972370,\"{'Yb': 2.0, 'In': 1.0, 'Hg': 1.0}\",\"('Hg', 'In', 'Yb')\",OTHERS,True\nmp-1206494,\"{'Lu': 3.0, 'In': 3.0, 'Ni': 3.0}\",\"('In', 'Lu', 'Ni')\",OTHERS,True\nmp-30142,\"{'Be': 12.0, 'N': 18.0, 'O': 57.0}\",\"('Be', 'N', 'O')\",OTHERS,True\nmp-19932,\"{'Se': 12.0, 'In': 16.0}\",\"('In', 'Se')\",OTHERS,True\nmp-1212719,\"{'Fe': 20.0, 'Si': 4.0, 'C': 4.0}\",\"('C', 'Fe', 'Si')\",OTHERS,True\nmp-978539,\"{'Sm': 1.0, 'Tm': 1.0, 'Ru': 2.0}\",\"('Ru', 'Sm', 'Tm')\",OTHERS,True\nmp-1186053,\"{'Na': 3.0, 'Nb': 1.0}\",\"('Na', 'Nb')\",OTHERS,True\nmp-1210663,\"{'Mg': 14.0, 'Ir': 6.0}\",\"('Ir', 'Mg')\",OTHERS,True\nmp-1209975,\"{'Nd': 12.0, 'Se': 12.0, 'N': 4.0}\",\"('N', 'Nd', 'Se')\",OTHERS,True\nmp-1207889,\"{'W': 12.0, 'I': 24.0}\",\"('I', 'W')\",OTHERS,True\nmp-865176,\"{'Hf': 1.0, 'Cu': 3.0}\",\"('Cu', 'Hf')\",OTHERS,True\nmp-21684,\"{'P': 12.0, 'Cu': 19.0, 'Ce': 5.0}\",\"('Ce', 'Cu', 'P')\",OTHERS,True\nmp-680092,\"{'Cd': 10.0, 'I': 20.0}\",\"('Cd', 'I')\",OTHERS,True\nmp-973924,\"{'Li': 1.0, 'Mg': 16.0, 'Al': 12.0}\",\"('Al', 'Li', 'Mg')\",OTHERS,True\nmp-769010,\"{'Li': 12.0, 'Bi': 10.0, 'O': 28.0}\",\"('Bi', 'Li', 'O')\",OTHERS,True\nmp-23621,\"{'O': 48.0, 'Na': 4.0, 'P': 16.0, 'Bi': 4.0}\",\"('Bi', 'Na', 'O', 'P')\",OTHERS,True\nmp-1064227,{'Ca': 4.0},\"('Ca',)\",OTHERS,True\nmp-1076754,\"{'K': 16.0, 'Na': 16.0, 'Mo': 28.0, 'W': 4.0, 'O': 80.0}\",\"('K', 'Mo', 'Na', 'O', 'W')\",OTHERS,True\nmp-28337,\"{'O': 13.0, 'V': 4.0, 'As': 2.0}\",\"('As', 'O', 'V')\",OTHERS,True\nmp-558376,\"{'Na': 8.0, 'Mn': 8.0, 'O': 12.0}\",\"('Mn', 'Na', 'O')\",OTHERS,True\nmp-1199525,\"{'U': 4.0, 'P': 16.0, 'O': 48.0}\",\"('O', 'P', 'U')\",OTHERS,True\nmp-1120721,\"{'Rb': 2.0, 'Ge': 2.0, 'Br': 6.0}\",\"('Br', 'Ge', 'Rb')\",OTHERS,True\nmvc-1323,\"{'Ba': 2.0, 'Y': 2.0, 'Fe': 8.0, 'O': 14.0}\",\"('Ba', 'Fe', 'O', 'Y')\",OTHERS,True\nmp-1228975,\"{'Al': 2.0, 'Cr': 3.0, 'Cu': 1.0, 'S': 8.0}\",\"('Al', 'Cr', 'Cu', 'S')\",OTHERS,True\nmp-1105355,\"{'Ca': 1.0, 'Mn': 7.0, 'O': 12.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,True\nmp-760126,\"{'Na': 8.0, 'V': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Na', 'O', 'P', 'V')\",OTHERS,True\nmp-554085,\"{'Te': 6.0, 'C': 12.0, 'F': 48.0}\",\"('C', 'F', 'Te')\",OTHERS,True\nmp-1096168,\"{'Ca': 2.0, 'Zn': 1.0, 'Ag': 1.0}\",\"('Ag', 'Ca', 'Zn')\",OTHERS,True\nmp-683902,\"{'Rb': 6.0, 'Nb': 4.0, 'As': 2.0, 'Se': 22.0}\",\"('As', 'Nb', 'Rb', 'Se')\",OTHERS,True\nmp-669347,\"{'K': 8.0, 'Cu': 8.0, 'F': 24.0}\",\"('Cu', 'F', 'K')\",OTHERS,True\nmp-1027946,\"{'Y': 1.0, 'Mg': 14.0, 'Sb': 1.0}\",\"('Mg', 'Sb', 'Y')\",OTHERS,True\nmp-1192712,\"{'K': 4.0, 'I': 4.0, 'Cl': 16.0, 'O': 4.0}\",\"('Cl', 'I', 'K', 'O')\",OTHERS,True\nmp-1182074,\"{'Ca': 2.0, 'Co': 1.0, 'O': 3.0}\",\"('Ca', 'Co', 'O')\",OTHERS,True\nmp-27342,\"{'F': 24.0, 'Ge': 10.0}\",\"('F', 'Ge')\",OTHERS,True\nmp-1113456,\"{'Rb': 2.0, 'Sb': 1.0, 'Au': 1.0, 'Cl': 6.0}\",\"('Au', 'Cl', 'Rb', 'Sb')\",OTHERS,True\nmp-690725,\"{'Tl': 2.0, 'Cu': 2.0, 'H': 2.0, 'S': 2.0, 'O': 10.0}\",\"('Cu', 'H', 'O', 'S', 'Tl')\",OTHERS,True\nmp-1193418,\"{'Y': 2.0, 'I': 6.0, 'O': 22.0}\",\"('I', 'O', 'Y')\",OTHERS,True\nmp-766575,\"{'Li': 32.0, 'Ti': 4.0, 'S': 24.0}\",\"('Li', 'S', 'Ti')\",OTHERS,True\nmp-555076,\"{'K': 4.0, 'Na': 4.0, 'Sn': 4.0, 'F': 24.0}\",\"('F', 'K', 'Na', 'Sn')\",OTHERS,True\nmp-5563,\"{'O': 16.0, 'Ge': 4.0, 'Ag': 20.0}\",\"('Ag', 'Ge', 'O')\",OTHERS,True\nmp-1183288,\"{'Ba': 1.0, 'In': 1.0, 'O': 3.0}\",\"('Ba', 'In', 'O')\",OTHERS,True\nmp-1210101,\"{'Na': 1.0, 'Be': 2.0, 'Tl': 3.0, 'F': 8.0}\",\"('Be', 'F', 'Na', 'Tl')\",OTHERS,True\nmp-6980,\"{'S': 2.0, 'Sc': 1.0, 'Cu': 1.0}\",\"('Cu', 'S', 'Sc')\",OTHERS,True\nmp-1226365,\"{'Cs': 2.0, 'Cu': 3.0, 'Ni': 1.0, 'F': 10.0}\",\"('Cs', 'Cu', 'F', 'Ni')\",OTHERS,True\nmp-1025691,\"{'Te': 4.0, 'Mo': 1.0, 'W': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Te', 'W')\",OTHERS,True\nmp-571136,\"{'Cd': 7.0, 'I': 14.0}\",\"('Cd', 'I')\",OTHERS,True\nmp-1221207,\"{'Na': 8.0, 'Ca': 4.0, 'Si': 2.0, 'P': 8.0}\",\"('Ca', 'Na', 'P', 'Si')\",OTHERS,True\nmp-1217328,\"{'Th': 1.0, 'Mn': 3.0, 'Al': 2.0}\",\"('Al', 'Mn', 'Th')\",OTHERS,True\nmp-1080104,\"{'Pr': 2.0, 'B': 4.0, 'Ir': 4.0}\",\"('B', 'Ir', 'Pr')\",OTHERS,True\nmp-1205147,\"{'Sm': 2.0, 'Ni': 24.0, 'B': 12.0}\",\"('B', 'Ni', 'Sm')\",OTHERS,True\nmp-640818,\"{'Mo': 36.0, 'O': 104.0}\",\"('Mo', 'O')\",OTHERS,True\nmp-1021492,\"{'Cd': 4.0, 'S': 1.0, 'F': 6.0}\",\"('Cd', 'F', 'S')\",OTHERS,True\nmp-7405,\"{'O': 12.0, 'Al': 4.0, 'Sm': 4.0}\",\"('Al', 'O', 'Sm')\",OTHERS,True\nmp-755923,\"{'Fe': 6.0, 'O': 7.0, 'F': 5.0}\",\"('F', 'Fe', 'O')\",OTHERS,True\nmp-1211934,\"{'La': 12.0, 'Al': 2.0, 'Fe': 26.0}\",\"('Al', 'Fe', 'La')\",OTHERS,True\nmp-1226892,\"{'Ce': 2.0, 'Co': 5.0, 'Cu': 5.0}\",\"('Ce', 'Co', 'Cu')\",OTHERS,True\nmp-19276,\"{'O': 8.0, 'Ba': 2.0, 'Mo': 2.0}\",\"('Ba', 'Mo', 'O')\",OTHERS,True\nmp-1198608,\"{'V': 8.0, 'Zn': 4.0, 'P': 12.0, 'N': 4.0, 'O': 60.0}\",\"('N', 'O', 'P', 'V', 'Zn')\",OTHERS,True\nmp-766389,\"{'Li': 12.0, 'Mn': 3.0, 'O': 3.0, 'F': 15.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-759728,\"{'Sb': 14.0, 'O': 12.0, 'F': 18.0}\",\"('F', 'O', 'Sb')\",OTHERS,True\nmp-557650,\"{'Sr': 3.0, 'P': 6.0, 'N': 8.0, 'O': 6.0}\",\"('N', 'O', 'P', 'Sr')\",OTHERS,True\nmp-5308,\"{'O': 36.0, 'La': 4.0, 'Ta': 12.0}\",\"('La', 'O', 'Ta')\",OTHERS,True\nmp-4954,\"{'Si': 2.0, 'Pd': 2.0, 'La': 1.0}\",\"('La', 'Pd', 'Si')\",OTHERS,True\nmp-1111928,\"{'K': 2.0, 'Li': 1.0, 'As': 1.0, 'F': 6.0}\",\"('As', 'F', 'K', 'Li')\",OTHERS,True\nmp-697721,\"{'H': 32.0, 'C': 8.0, 'N': 4.0, 'Cl': 4.0}\",\"('C', 'Cl', 'H', 'N')\",OTHERS,True\nmp-752897,\"{'Li': 3.0, 'Fe': 7.0, 'O': 12.0}\",\"('Fe', 'Li', 'O')\",OTHERS,True\nmp-17876,\"{'O': 16.0, 'Na': 4.0, 'Mn': 4.0, 'As': 4.0}\",\"('As', 'Mn', 'Na', 'O')\",OTHERS,True\nmp-23041,\"{'S': 4.0, 'Sb': 4.0, 'I': 4.0}\",\"('I', 'S', 'Sb')\",OTHERS,True\nmp-1227498,\"{'Ba': 1.0, 'Sr': 1.0, 'Nd': 1.0, 'Cu': 3.0, 'O': 7.0}\",\"('Ba', 'Cu', 'Nd', 'O', 'Sr')\",OTHERS,True\nmp-1028791,\"{'Te': 4.0, 'Mo': 1.0, 'W': 3.0, 'Se': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,True\nmp-1205359,\"{'Ba': 2.0, 'U': 1.0, 'Cu': 1.0, 'O': 6.0}\",\"('Ba', 'Cu', 'O', 'U')\",OTHERS,True\nmp-1197910,\"{'K': 8.0, 'Si': 32.0, 'H': 216.0, 'C': 72.0, 'O': 24.0}\",\"('C', 'H', 'K', 'O', 'Si')\",OTHERS,True\nmp-15626,\"{'F': 6.0, 'Na': 1.0, 'Ti': 1.0, 'Rb': 2.0}\",\"('F', 'Na', 'Rb', 'Ti')\",OTHERS,True\nmp-561499,\"{'Dy': 6.0, 'Cu': 2.0, 'Sn': 2.0, 'S': 14.0}\",\"('Cu', 'Dy', 'S', 'Sn')\",OTHERS,True\nmp-1210171,\"{'Pu': 8.0, 'Ni': 2.0}\",\"('Ni', 'Pu')\",OTHERS,True\nmp-570847,\"{'Co': 1.0, 'H': 3.0, 'C': 6.0, 'N': 6.0}\",\"('C', 'Co', 'H', 'N')\",OTHERS,True\nmp-767404,\"{'Gd': 4.0, 'As': 8.0, 'O': 22.0}\",\"('As', 'Gd', 'O')\",OTHERS,True\nmp-721047,\"{'Ca': 2.0, 'H': 16.0, 'Cl': 4.0, 'O': 8.0}\",\"('Ca', 'Cl', 'H', 'O')\",OTHERS,True\nmp-560756,\"{'Th': 9.0, 'Mo': 18.0, 'O': 72.0}\",\"('Mo', 'O', 'Th')\",OTHERS,True\nmp-867750,\"{'Ti': 3.0, 'P': 1.0, 'O': 7.0}\",\"('O', 'P', 'Ti')\",OTHERS,True\nmp-694318,\"{'In': 16.0, 'W': 24.0, 'O': 96.0}\",\"('In', 'O', 'W')\",OTHERS,True\nmp-10895,\"{'Al': 1.0, 'V': 1.0, 'Mn': 2.0}\",\"('Al', 'Mn', 'V')\",OTHERS,True\nmp-605166,\"{'K': 4.0, 'Dy': 4.0, 'H': 8.0, 'C': 8.0, 'S': 4.0, 'O': 36.0}\",\"('C', 'Dy', 'H', 'K', 'O', 'S')\",OTHERS,True\nmp-1213975,\"{'Ca': 4.0, 'B': 16.0}\",\"('B', 'Ca')\",OTHERS,True\nmp-1215913,\"{'Y': 1.0, 'Co': 1.0, 'C': 1.0}\",\"('C', 'Co', 'Y')\",OTHERS,True\nmp-765473,\"{'Co': 4.0, 'Te': 8.0, 'O': 20.0}\",\"('Co', 'O', 'Te')\",OTHERS,True\nmp-754099,\"{'Li': 4.0, 'Ti': 2.0, 'Fe': 4.0, 'O': 10.0}\",\"('Fe', 'Li', 'O', 'Ti')\",OTHERS,True\nmp-531110,\"{'Ca': 18.0, 'F': 40.0, 'Pr': 2.0}\",\"('Ca', 'F', 'Pr')\",OTHERS,True\nmp-1064933,{'S': 4.0},\"('S',)\",OTHERS,True\nmp-11565,\"{'Y': 1.0, 'Rh': 5.0}\",\"('Rh', 'Y')\",OTHERS,True\nmp-759999,\"{'Mn': 12.0, 'O': 14.0, 'F': 10.0}\",\"('F', 'Mn', 'O')\",OTHERS,True\nmp-23259,\"{'Li': 1.0, 'Br': 1.0}\",\"('Br', 'Li')\",OTHERS,True\nmp-9873,\"{'Zn': 2.0, 'Ge': 2.0, 'Eu': 2.0}\",\"('Eu', 'Ge', 'Zn')\",OTHERS,True\nmp-768432,\"{'Mn': 2.0, 'Tl': 2.0, 'O': 6.0}\",\"('Mn', 'O', 'Tl')\",OTHERS,True\nmp-12984,\"{'Cu': 4.0, 'Se': 8.0, 'Tb': 4.0}\",\"('Cu', 'Se', 'Tb')\",OTHERS,True\nmp-759261,\"{'Li': 4.0, 'Co': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'Si')\",OTHERS,True\nmp-1198465,\"{'Er': 8.0, 'B': 24.0, 'Ru': 4.0}\",\"('B', 'Er', 'Ru')\",OTHERS,True\nmp-559672,\"{'K': 2.0, 'Ni': 2.0, 'As': 2.0, 'O': 8.0}\",\"('As', 'K', 'Ni', 'O')\",OTHERS,True\nmp-770540,\"{'Mn': 8.0, 'P': 4.0, 'O': 20.0}\",\"('Mn', 'O', 'P')\",OTHERS,True\nmp-1210604,\"{'Na': 3.0, 'Eu': 1.0, 'V': 2.0, 'O': 8.0}\",\"('Eu', 'Na', 'O', 'V')\",OTHERS,True\nmp-571033,\"{'Ni': 2.0, 'Se': 2.0}\",\"('Ni', 'Se')\",OTHERS,True\nmp-1223557,\"{'K': 2.0, 'U': 4.0, 'Sb': 2.0, 'Se': 16.0}\",\"('K', 'Sb', 'Se', 'U')\",OTHERS,True\nmp-676117,\"{'Li': 4.0, 'Cu': 2.0, 'Ge': 2.0}\",\"('Cu', 'Ge', 'Li')\",OTHERS,True\nmp-771335,\"{'Na': 6.0, 'Sn': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Na', 'O', 'P', 'Sn')\",OTHERS,True\nmp-759841,\"{'Li': 8.0, 'Mn': 16.0, 'O': 4.0, 'F': 32.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-761267,\"{'Li': 4.0, 'V': 2.0, 'O': 2.0, 'F': 8.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,True\nmp-22988,\"{'Cl': 3.0, 'Ge': 1.0, 'Cs': 1.0}\",\"('Cl', 'Cs', 'Ge')\",OTHERS,True\nmp-21105,\"{'Si': 4.0, 'Pu': 2.0}\",\"('Pu', 'Si')\",OTHERS,True\nmp-1215070,\"{'Ca': 8.0, 'Al': 16.0, 'Si': 16.0, 'W': 16.0, 'O': 64.0}\",\"('Al', 'Ca', 'O', 'Si', 'W')\",OTHERS,True\nmp-865531,\"{'Ti': 1.0, 'Mn': 2.0, 'Al': 1.0}\",\"('Al', 'Mn', 'Ti')\",OTHERS,True\nmp-1202107,\"{'Hg': 4.0, 'C': 32.0, 'N': 8.0, 'Cl': 16.0}\",\"('C', 'Cl', 'Hg', 'N')\",OTHERS,True\nmp-561743,\"{'Li': 8.0, 'Co': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'Si')\",OTHERS,True\nmp-1112506,\"{'Cs': 2.0, 'Al': 1.0, 'Tl': 1.0, 'Br': 6.0}\",\"('Al', 'Br', 'Cs', 'Tl')\",OTHERS,True\nmp-10096,\"{'Na': 6.0, 'P': 8.0, 'Ga': 2.0, 'Sr': 6.0}\",\"('Ga', 'Na', 'P', 'Sr')\",OTHERS,True\nmp-631314,\"{'K': 1.0, 'Ta': 1.0, 'Pt': 1.0}\",\"('K', 'Pt', 'Ta')\",OTHERS,True\nmp-1176603,\"{'Na': 8.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Na', 'O', 'P')\",OTHERS,True\nmp-644281,\"{'Mg': 7.0, 'Ti': 1.0, 'H': 16.0}\",\"('H', 'Mg', 'Ti')\",OTHERS,True\nmp-1027772,\"{'Te': 2.0, 'Mo': 3.0, 'W': 1.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,True\nmvc-1665,\"{'Ba': 4.0, 'Mg': 2.0, 'Cu': 6.0, 'F': 28.0}\",\"('Ba', 'Cu', 'F', 'Mg')\",OTHERS,True\nmp-1078544,\"{'Sc': 4.0, 'In': 2.0, 'Cu': 4.0}\",\"('Cu', 'In', 'Sc')\",OTHERS,True\nmp-1061865,\"{'Te': 1.0, 'N': 2.0}\",\"('N', 'Te')\",OTHERS,True\nmp-1199711,\"{'Si': 72.0, 'O': 116.0}\",\"('O', 'Si')\",OTHERS,True\nmp-4730,\"{'Ga': 2.0, 'Se': 4.0, 'Hg': 1.0}\",\"('Ga', 'Hg', 'Se')\",OTHERS,True\nmp-1177524,\"{'Li': 12.0, 'Ti': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'O', 'P', 'Ti')\",OTHERS,True\nmp-766596,\"{'Ti': 8.0, 'Si': 16.0, 'O': 48.0}\",\"('O', 'Si', 'Ti')\",OTHERS,True\nmp-30527,\"{'Ta': 6.0, 'S': 18.0}\",\"('S', 'Ta')\",OTHERS,True\nmp-1101268,\"{'V': 1.0, 'Fe': 7.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'O', 'P', 'V')\",OTHERS,True\nmp-676881,\"{'Ho': 8.0, 'Zr': 6.0, 'O': 24.0}\",\"('Ho', 'O', 'Zr')\",OTHERS,True\nmp-675633,\"{'Ag': 4.0, 'Au': 1.0, 'S': 2.0}\",\"('Ag', 'Au', 'S')\",OTHERS,True\nmp-684705,\"{'Ca': 2.0, 'La': 2.0, 'Mn': 2.0, 'Mo': 2.0, 'O': 12.0}\",\"('Ca', 'La', 'Mn', 'Mo', 'O')\",OTHERS,True\nmp-215,\"{'Y': 1.0, 'Sb': 1.0}\",\"('Sb', 'Y')\",OTHERS,True\nmp-611836,{'O': 2.0},\"('O',)\",OTHERS,True\nmp-779159,\"{'Na': 32.0, 'Cu': 8.0, 'O': 28.0}\",\"('Cu', 'Na', 'O')\",OTHERS,True\nmp-27557,\"{'Na': 32.0, 'Fe': 8.0, 'O': 28.0}\",\"('Fe', 'Na', 'O')\",OTHERS,True\nmp-1244816,\"{'Sr': 2.0, 'Y': 1.0, 'Tl': 1.0, 'Ni': 2.0, 'O': 7.0}\",\"('Ni', 'O', 'Sr', 'Tl', 'Y')\",OTHERS,True\nmp-585476,\"{'Cs': 14.0, 'Np': 6.0, 'Cl': 24.0, 'O': 12.0}\",\"('Cl', 'Cs', 'Np', 'O')\",OTHERS,True\nmp-1214575,\"{'Ba': 10.0, 'Mn': 6.0, 'O': 24.0, 'F': 2.0}\",\"('Ba', 'F', 'Mn', 'O')\",OTHERS,True\nmp-865482,\"{'V': 1.0, 'Tc': 2.0, 'Ge': 1.0}\",\"('Ge', 'Tc', 'V')\",OTHERS,True\nmp-27841,\"{'O': 2.0, 'V': 2.0, 'Br': 2.0}\",\"('Br', 'O', 'V')\",OTHERS,True\nmp-774749,\"{'Rb': 1.0, 'Na': 3.0, 'Li': 12.0, 'Ti': 4.0, 'O': 16.0}\",\"('Li', 'Na', 'O', 'Rb', 'Ti')\",OTHERS,True\nmp-1208535,\"{'Tb': 4.0, 'Ga': 18.0, 'Ir': 6.0}\",\"('Ga', 'Ir', 'Tb')\",OTHERS,True\nmp-617632,\"{'La': 6.0, 'Ag': 2.0, 'Ge': 2.0, 'S': 14.0}\",\"('Ag', 'Ge', 'La', 'S')\",OTHERS,True\nmp-1176994,\"{'Li': 7.0, 'V': 3.0, 'Si': 2.0, 'O': 12.0}\",\"('Li', 'O', 'Si', 'V')\",OTHERS,True\nmp-1194802,\"{'V': 8.0, 'Co': 4.0, 'O': 32.0}\",\"('Co', 'O', 'V')\",OTHERS,True\nmp-1114386,\"{'Rb': 2.0, 'Al': 1.0, 'In': 1.0, 'F': 6.0}\",\"('Al', 'F', 'In', 'Rb')\",OTHERS,True\nmp-754908,\"{'Nb': 1.0, 'Cr': 1.0, 'O': 4.0}\",\"('Cr', 'Nb', 'O')\",OTHERS,True\nmvc-8086,\"{'Sn': 2.0, 'Ge': 4.0, 'O': 12.0}\",\"('Ge', 'O', 'Sn')\",OTHERS,True\nmp-754409,\"{'Ho': 2.0, 'B': 2.0, 'O': 6.0}\",\"('B', 'Ho', 'O')\",OTHERS,True\nmp-10274,\"{'C': 1.0, 'Ga': 1.0, 'Er': 3.0}\",\"('C', 'Er', 'Ga')\",OTHERS,True\nmp-1017579,\"{'In': 2.0, 'Au': 3.0}\",\"('Au', 'In')\",OTHERS,True\nmvc-3996,\"{'Ca': 4.0, 'W': 4.0, 'O': 12.0}\",\"('Ca', 'O', 'W')\",OTHERS,True\nmp-756246,\"{'Nd': 4.0, 'Zr': 4.0, 'O': 12.0}\",\"('Nd', 'O', 'Zr')\",OTHERS,True\nmp-4499,\"{'Mg': 4.0, 'Al': 4.0, 'Si': 4.0}\",\"('Al', 'Mg', 'Si')\",OTHERS,True\nmp-1191015,\"{'Li': 8.0, 'Nd': 8.0, 'Sn': 8.0}\",\"('Li', 'Nd', 'Sn')\",OTHERS,True\nmp-775302,\"{'Li': 8.0, 'Cr': 4.0, 'Si': 24.0, 'O': 60.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,True\nmp-29266,\"{'S': 2.0, 'Cs': 2.0}\",\"('Cs', 'S')\",OTHERS,True\nmp-650280,\"{'Cs': 16.0, 'As': 64.0, 'S': 104.0}\",\"('As', 'Cs', 'S')\",OTHERS,True\nmp-976784,\"{'Ni': 1.0, 'Au': 3.0}\",\"('Au', 'Ni')\",OTHERS,True\nmp-775189,\"{'Li': 12.0, 'Mn': 6.0, 'Fe': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'Li', 'Mn', 'O', 'P')\",OTHERS,True\nmp-23828,\"{'H': 12.0, 'Br': 2.0, 'Sr': 7.0}\",\"('Br', 'H', 'Sr')\",OTHERS,True\nmp-1239164,\"{'Nb': 2.0, 'Cr': 6.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cr', 'Cu', 'Nb', 'S')\",OTHERS,True\nmp-1207192,\"{'Nd': 2.0, 'H': 2.0, 'Se': 2.0}\",\"('H', 'Nd', 'Se')\",OTHERS,True\nmp-757653,\"{'Li': 16.0, 'Fe': 16.0, 'P': 16.0, 'O': 64.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,True\nmp-1094377,\"{'Mg': 12.0, 'Ti': 6.0}\",\"('Mg', 'Ti')\",OTHERS,True\nmp-5431,\"{'O': 6.0, 'Te': 2.0, 'Ba': 2.0}\",\"('Ba', 'O', 'Te')\",OTHERS,True\nmvc-4372,\"{'Ca': 4.0, 'Ta': 2.0, 'Co': 2.0, 'O': 12.0}\",\"('Ca', 'Co', 'O', 'Ta')\",OTHERS,True\nmp-778376,\"{'Li': 32.0, 'Mn': 5.0, 'Cr': 11.0, 'O': 48.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1096710,\"{'Ti': 1.0, 'V': 2.0, 'W': 1.0}\",\"('Ti', 'V', 'W')\",OTHERS,True\nmp-6105,\"{'O': 32.0, 'Se': 8.0, 'Pr': 8.0, 'Ta': 12.0}\",\"('O', 'Pr', 'Se', 'Ta')\",OTHERS,True\nmp-752880,\"{'Fe': 8.0, 'O': 8.0, 'F': 8.0}\",\"('F', 'Fe', 'O')\",OTHERS,True\nmp-1187765,\"{'Y': 2.0, 'Al': 1.0, 'Ru': 1.0}\",\"('Al', 'Ru', 'Y')\",OTHERS,True\nmp-1076884,\"{'Sr': 24.0, 'Ca': 8.0, 'Fe': 28.0, 'Co': 4.0, 'O': 80.0}\",\"('Ca', 'Co', 'Fe', 'O', 'Sr')\",OTHERS,True\nmp-642648,\"{'K': 2.0, 'P': 2.0, 'H': 4.0, 'O': 4.0}\",\"('H', 'K', 'O', 'P')\",OTHERS,True\nmp-730972,\"{'U': 4.0, 'P': 12.0, 'H': 40.0, 'Cl': 4.0, 'O': 32.0}\",\"('Cl', 'H', 'O', 'P', 'U')\",OTHERS,True\nmp-505629,\"{'Cr': 12.0, 'Ni': 8.0, 'Si': 4.0}\",\"('Cr', 'Ni', 'Si')\",OTHERS,True\nmp-230,\"{'Sb': 8.0, 'O': 16.0}\",\"('O', 'Sb')\",OTHERS,True\nmp-1211816,\"{'K': 4.0, 'In': 4.0, 'P': 8.0, 'Se': 24.0}\",\"('In', 'K', 'P', 'Se')\",OTHERS,True\nmp-21473,\"{'P': 2.0, 'Ni': 2.0, 'Gd': 1.0}\",\"('Gd', 'Ni', 'P')\",OTHERS,True\nmp-1198684,\"{'K': 12.0, 'Mo': 14.0, 'O': 68.0}\",\"('K', 'Mo', 'O')\",OTHERS,True\nmp-1214277,\"{'Ce': 6.0, 'N': 8.0, 'O': 33.0}\",\"('Ce', 'N', 'O')\",OTHERS,True\nmp-867313,\"{'Li': 1.0, 'Tm': 1.0, 'Pt': 2.0}\",\"('Li', 'Pt', 'Tm')\",OTHERS,True\nmp-9694,\"{'Ge': 4.0, 'Pd': 4.0, 'Tm': 3.0}\",\"('Ge', 'Pd', 'Tm')\",OTHERS,True\nmp-568405,\"{'K': 4.0, 'Nb': 2.0, 'Cl': 12.0}\",\"('Cl', 'K', 'Nb')\",OTHERS,True\nmp-21650,\"{'Li': 8.0, 'O': 32.0, 'Ni': 4.0, 'Ge': 12.0}\",\"('Ge', 'Li', 'Ni', 'O')\",OTHERS,True\nmp-994,\"{'P': 1.0, 'Y': 1.0}\",\"('P', 'Y')\",OTHERS,True\nmp-680167,\"{'Li': 2.0, 'Mo': 12.0, 'Cl': 26.0}\",\"('Cl', 'Li', 'Mo')\",OTHERS,True\nmp-1247016,\"{'Si': 12.0, 'Sb': 6.0, 'N': 22.0}\",\"('N', 'Sb', 'Si')\",OTHERS,True\nmp-1180215,\"{'N': 6.0, 'O': 3.0}\",\"('N', 'O')\",OTHERS,True\nmp-1228626,\"{'Ba': 2.0, 'Si': 3.0, 'Ge': 5.0, 'O': 18.0}\",\"('Ba', 'Ge', 'O', 'Si')\",OTHERS,True\nmp-1098076,\"{'Ce': 1.0, 'Mg': 6.0, 'B': 1.0}\",\"('B', 'Ce', 'Mg')\",OTHERS,True\nmp-757960,\"{'Li': 4.0, 'Ni': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,True\nmp-15779,\"{'Mg': 2.0, 'Si': 1.0, 'Ni': 3.0}\",\"('Mg', 'Ni', 'Si')\",OTHERS,True\nmp-1114642,\"{'Rb': 2.0, 'Li': 1.0, 'Ga': 1.0, 'F': 6.0}\",\"('F', 'Ga', 'Li', 'Rb')\",OTHERS,True\nmp-1019361,\"{'Th': 2.0, 'Sb': 2.0, 'Te': 2.0}\",\"('Sb', 'Te', 'Th')\",OTHERS,True\nmp-1179094,\"{'Sr': 4.0, 'H': 8.0}\",\"('H', 'Sr')\",OTHERS,True\nmp-1096013,\"{'Ta': 2.0, 'Mn': 1.0, 'Fe': 1.0}\",\"('Fe', 'Mn', 'Ta')\",OTHERS,True\nmp-18732,\"{'O': 6.0, 'Ti': 2.0, 'Ni': 2.0}\",\"('Ni', 'O', 'Ti')\",OTHERS,True\nmp-4135,\"{'O': 12.0, 'P': 4.0, 'Rb': 4.0}\",\"('O', 'P', 'Rb')\",OTHERS,True\nmp-20821,\"{'Ga': 3.0, 'Np': 1.0}\",\"('Ga', 'Np')\",OTHERS,True\nmp-18838,\"{'O': 16.0, 'F': 12.0, 'S': 4.0, 'K': 8.0, 'Mn': 4.0}\",\"('F', 'K', 'Mn', 'O', 'S')\",OTHERS,True\nmp-1103779,\"{'Mg': 2.0, 'Cr': 4.0, 'O': 8.0}\",\"('Cr', 'Mg', 'O')\",OTHERS,True\nmp-22966,\"{'C': 2.0, 'F': 4.0, 'Cl': 4.0}\",\"('C', 'Cl', 'F')\",OTHERS,True\nmp-30560,\"{'Co': 1.0, 'Nb': 1.0, 'Sn': 1.0}\",\"('Co', 'Nb', 'Sn')\",OTHERS,True\nmp-19377,\"{'Li': 2.0, 'O': 12.0, 'Mo': 2.0, 'La': 4.0}\",\"('La', 'Li', 'Mo', 'O')\",OTHERS,True\nmp-865508,\"{'U': 2.0, 'Ni': 12.0, 'As': 7.0}\",\"('As', 'Ni', 'U')\",OTHERS,True\nmp-1224129,\"{'In': 1.0, 'Cu': 1.0, 'Sn': 1.0, 'Se': 4.0}\",\"('Cu', 'In', 'Se', 'Sn')\",OTHERS,True\nmp-17153,\"{'Te': 16.0, 'Ba': 4.0, 'Tb': 8.0}\",\"('Ba', 'Tb', 'Te')\",OTHERS,True\nmp-1223740,\"{'K': 4.0, 'H': 16.0, 'Pb': 4.0, 'I': 12.0, 'O': 8.0}\",\"('H', 'I', 'K', 'O', 'Pb')\",OTHERS,True\nmp-1075430,\"{'Mg': 10.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-1228981,\"{'Ba': 10.0, 'Fe': 8.0, 'Pt': 2.0, 'Cl': 2.0, 'O': 25.0}\",\"('Ba', 'Cl', 'Fe', 'O', 'Pt')\",OTHERS,True\nmp-1190043,\"{'Tl': 2.0, 'Cr': 6.0, 'Se': 10.0}\",\"('Cr', 'Se', 'Tl')\",OTHERS,True\nmp-2233,\"{'Ag': 2.0, 'Th': 4.0}\",\"('Ag', 'Th')\",OTHERS,True\nmp-990086,\"{'Mo': 18.0, 'H': 2.0, 'S': 36.0}\",\"('H', 'Mo', 'S')\",OTHERS,True\nmp-1012835,\"{'Sm': 2.0, 'Cu': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Cu', 'O', 'Sm', 'W')\",OTHERS,True\nmvc-9555,\"{'Mg': 4.0, 'Ti': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Mg', 'O', 'P', 'Ti')\",OTHERS,True\nmp-1198511,\"{'Tb': 6.0, 'Co': 8.0, 'Ge': 26.0}\",\"('Co', 'Ge', 'Tb')\",OTHERS,True\nmp-1202667,\"{'Ni': 4.0, 'P': 8.0, 'H': 104.0, 'C': 32.0, 'S': 16.0, 'N': 8.0, 'O': 8.0}\",\"('C', 'H', 'N', 'Ni', 'O', 'P', 'S')\",OTHERS,True\nmp-1194543,\"{'K': 8.0, 'Ge': 2.0, 'Se': 8.0, 'O': 8.0}\",\"('Ge', 'K', 'O', 'Se')\",OTHERS,True\nmp-1111493,\"{'K': 3.0, 'Er': 1.0, 'Cl': 6.0}\",\"('Cl', 'Er', 'K')\",OTHERS,True\nmp-1186864,\"{'Rb': 3.0, 'Pm': 1.0}\",\"('Pm', 'Rb')\",OTHERS,True\nmp-695941,\"{'Ag': 12.0, 'H': 52.0, 'Se': 4.0, 'N': 16.0, 'O': 20.0}\",\"('Ag', 'H', 'N', 'O', 'Se')\",OTHERS,True\nmp-1186732,\"{'Pr': 6.0, 'Pa': 2.0}\",\"('Pa', 'Pr')\",OTHERS,True\nmp-772170,\"{'Ca': 4.0, 'La': 4.0, 'I': 20.0}\",\"('Ca', 'I', 'La')\",OTHERS,True\nmp-1214216,\"{'C': 36.0, 'Br': 2.0, 'F': 26.0}\",\"('Br', 'C', 'F')\",OTHERS,True\nmp-760034,\"{'Li': 6.0, 'V': 3.0, 'Fe': 3.0, 'P': 6.0, 'H': 6.0, 'O': 30.0}\",\"('Fe', 'H', 'Li', 'O', 'P', 'V')\",OTHERS,True\nmp-1186185,\"{'Na': 1.0, 'Tl': 2.0, 'In': 1.0}\",\"('In', 'Na', 'Tl')\",OTHERS,True\nmp-764566,\"{'Li': 1.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-1181558,\"{'Cs': 1.0, 'Zr': 1.0, 'Cu': 3.0, 'Se': 4.0}\",\"('Cs', 'Cu', 'Se', 'Zr')\",OTHERS,True\nmp-1220728,\"{'Na': 1.0, 'Li': 1.0, 'As': 2.0, 'S': 4.0}\",\"('As', 'Li', 'Na', 'S')\",OTHERS,True\nmp-1221452,\"{'Na': 1.0, 'Fe': 6.0, 'H': 12.0, 'S': 4.0, 'O': 29.0}\",\"('Fe', 'H', 'Na', 'O', 'S')\",OTHERS,True\nmp-1118832,\"{'Ca': 4.0, 'W': 2.0, 'N': 4.0}\",\"('Ca', 'N', 'W')\",OTHERS,True\nmp-1200080,\"{'Pr': 6.0, 'Rh': 8.0, 'Pb': 26.0}\",\"('Pb', 'Pr', 'Rh')\",OTHERS,True\nmp-570644,\"{'Ba': 14.0, 'Na': 21.0, 'Ca': 1.0, 'N': 6.0}\",\"('Ba', 'Ca', 'N', 'Na')\",OTHERS,True\nmp-1074263,\"{'Mg': 16.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-1096345,\"{'Al': 1.0, 'Ga': 1.0, 'Ru': 2.0}\",\"('Al', 'Ga', 'Ru')\",OTHERS,True\nmp-556053,\"{'Te': 4.0, 'C': 32.0, 'O': 16.0, 'F': 48.0}\",\"('C', 'F', 'O', 'Te')\",OTHERS,True\nmp-1246774,\"{'Si': 14.0, 'Ni': 2.0, 'N': 20.0}\",\"('N', 'Ni', 'Si')\",OTHERS,True\nmp-975275,\"{'Rb': 1.0, 'Na': 2.0, 'Sb': 1.0}\",\"('Na', 'Rb', 'Sb')\",OTHERS,True\nmp-632490,\"{'Eu': 8.0, 'Sn': 4.0, 'S': 16.0}\",\"('Eu', 'S', 'Sn')\",OTHERS,True\nmp-3523,\"{'O': 16.0, 'Sr': 4.0, 'Gd': 8.0}\",\"('Gd', 'O', 'Sr')\",OTHERS,True\nmp-31104,\"{'K': 16.0, 'Bi': 16.0}\",\"('Bi', 'K')\",OTHERS,True\nmp-1224521,\"{'Ho': 12.0, 'Si': 5.0, 'S': 28.0}\",\"('Ho', 'S', 'Si')\",OTHERS,True\nmp-1195463,\"{'U': 4.0, 'Si': 24.0, 'H': 216.0, 'C': 72.0, 'N': 12.0, 'F': 4.0}\",\"('C', 'F', 'H', 'N', 'Si', 'U')\",OTHERS,True\nmp-1197109,\"{'Fe': 4.0, 'S': 4.0, 'O': 44.0}\",\"('Fe', 'O', 'S')\",OTHERS,True\nmp-1215271,\"{'Zr': 2.0, 'Fe': 2.0, 'Co': 2.0}\",\"('Co', 'Fe', 'Zr')\",OTHERS,True\nmp-1215747,\"{'Yb': 4.0, 'S': 7.0}\",\"('S', 'Yb')\",OTHERS,True\nmp-866140,\"{'Ti': 1.0, 'Ga': 1.0, 'Pd': 2.0}\",\"('Ga', 'Pd', 'Ti')\",OTHERS,True\nmp-28432,\"{'Cd': 4.0, 'I': 14.0, 'Tl': 6.0}\",\"('Cd', 'I', 'Tl')\",OTHERS,True\nmp-1095001,\"{'Ca': 3.0, 'Zn': 3.0}\",\"('Ca', 'Zn')\",OTHERS,True\nmp-556418,\"{'Al': 2.0, 'S': 2.0, 'Cl': 6.0, 'O': 4.0}\",\"('Al', 'Cl', 'O', 'S')\",OTHERS,True\nmp-1039958,\"{'Ce': 1.0, 'Mg': 30.0, 'B': 1.0, 'O': 32.0}\",\"('B', 'Ce', 'Mg', 'O')\",OTHERS,True\nmp-1218486,\"{'Sr': 2.0, 'Y': 1.0, 'Tl': 1.0, 'Cu': 2.0, 'O': 7.0}\",\"('Cu', 'O', 'Sr', 'Tl', 'Y')\",OTHERS,True\nmp-7163,{'Tb': 1.0},\"('Tb',)\",OTHERS,True\nmp-1112936,\"{'Cs': 2.0, 'Ta': 1.0, 'Ag': 1.0, 'Br': 6.0}\",\"('Ag', 'Br', 'Cs', 'Ta')\",OTHERS,True\nmp-769391,\"{'Ba': 8.0, 'Zr': 2.0, 'O': 12.0}\",\"('Ba', 'O', 'Zr')\",OTHERS,True\nmp-752857,\"{'V': 3.0, 'O': 1.0, 'F': 11.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmp-774838,\"{'Li': 2.0, 'Y': 14.0, 'Ti': 14.0, 'S': 14.0, 'O': 35.0}\",\"('Li', 'O', 'S', 'Ti', 'Y')\",OTHERS,True\nmp-3998,\"{'O': 8.0, 'La': 2.0, 'Ta': 2.0}\",\"('La', 'O', 'Ta')\",OTHERS,True\nmp-1223620,\"{'La': 12.0, 'Ge': 5.0, 'S': 28.0}\",\"('Ge', 'La', 'S')\",OTHERS,True\nmp-551131,\"{'Co': 4.0, 'As': 2.0, 'Cl': 2.0, 'O': 8.0}\",\"('As', 'Cl', 'Co', 'O')\",OTHERS,True\nmp-640381,\"{'Yb': 4.0, 'Cu': 4.0, 'S': 8.0}\",\"('Cu', 'S', 'Yb')\",OTHERS,True\nmp-1101091,\"{'Dy': 3.0, 'In': 4.0, 'Co': 2.0}\",\"('Co', 'Dy', 'In')\",OTHERS,True\nmp-1459,\"{'N': 1.0, 'Ta': 1.0}\",\"('N', 'Ta')\",OTHERS,True\nmp-342,\"{'Te': 1.0, 'Sm': 1.0}\",\"('Sm', 'Te')\",OTHERS,True\nmp-1245418,\"{'Cd': 4.0, 'Sn': 4.0, 'N': 8.0}\",\"('Cd', 'N', 'Sn')\",OTHERS,True\nmp-1209320,\"{'Rb': 4.0, 'Ag': 4.0, 'Te': 4.0, 'S': 12.0}\",\"('Ag', 'Rb', 'S', 'Te')\",OTHERS,True\nmp-865908,\"{'Yb': 2.0, 'Hg': 1.0, 'Pb': 1.0}\",\"('Hg', 'Pb', 'Yb')\",OTHERS,True\nmp-766123,\"{'Ce': 8.0, 'Th': 2.0, 'O': 20.0}\",\"('Ce', 'O', 'Th')\",OTHERS,True\nmp-973834,\"{'Pd': 1.0, 'Au': 3.0}\",\"('Au', 'Pd')\",OTHERS,True\nmp-772199,\"{'Rb': 18.0, 'Cl': 6.0, 'O': 6.0}\",\"('Cl', 'O', 'Rb')\",OTHERS,True\nmp-1200191,\"{'Ga': 42.0, 'Rh': 8.0}\",\"('Ga', 'Rh')\",OTHERS,True\nmp-7711,\"{'O': 1.0, 'Ag': 2.0}\",\"('Ag', 'O')\",OTHERS,True\nmvc-12018,\"{'Ta': 4.0, 'Mn': 2.0, 'Zn': 3.0, 'O': 16.0}\",\"('Mn', 'O', 'Ta', 'Zn')\",OTHERS,True\nmp-604594,\"{'Ce': 4.0, 'In': 10.0, 'Pd': 8.0}\",\"('Ce', 'In', 'Pd')\",OTHERS,True\nmp-779538,\"{'Fe': 10.0, 'O': 14.0, 'F': 6.0}\",\"('F', 'Fe', 'O')\",OTHERS,True\nmp-1210680,\"{'Mg': 4.0, 'Pb': 8.0}\",\"('Mg', 'Pb')\",OTHERS,True\nmp-605809,\"{'Ba': 22.0, 'In': 12.0, 'O': 6.0}\",\"('Ba', 'In', 'O')\",OTHERS,True\nmp-631322,\"{'K': 1.0, 'Sn': 1.0, 'Os': 1.0}\",\"('K', 'Os', 'Sn')\",OTHERS,True\nmp-1211509,\"{'K': 4.0, 'Sm': 8.0, 'I': 20.0}\",\"('I', 'K', 'Sm')\",OTHERS,True\nmp-1196241,\"{'Sr': 8.0, 'Be': 8.0, 'H': 32.0, 'O': 32.0}\",\"('Be', 'H', 'O', 'Sr')\",OTHERS,True\nmp-755545,\"{'Li': 6.0, 'Fe': 1.0, 'O': 4.0, 'F': 2.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-1222405,\"{'Li': 1.0, 'Cd': 3.0}\",\"('Cd', 'Li')\",OTHERS,True\nmp-1194603,\"{'Mn': 8.0, 'Bi': 8.0, 'O': 24.0}\",\"('Bi', 'Mn', 'O')\",OTHERS,True\nmp-697126,\"{'Ca': 4.0, 'H': 12.0, 'Rh': 3.0}\",\"('Ca', 'H', 'Rh')\",OTHERS,True\nmp-1204339,\"{'U': 2.0, 'Cr': 8.0, 'H': 36.0, 'O': 48.0}\",\"('Cr', 'H', 'O', 'U')\",OTHERS,True\nmp-19872,\"{'Al': 2.0, 'Cu': 1.0, 'U': 1.0}\",\"('Al', 'Cu', 'U')\",OTHERS,True\nmp-1095163,\"{'Pt': 1.0, 'Cl': 6.0, 'O': 2.0}\",\"('Cl', 'O', 'Pt')\",OTHERS,True\nmp-19766,\"{'Pd': 3.0, 'Sn': 3.0, 'Ce': 3.0}\",\"('Ce', 'Pd', 'Sn')\",OTHERS,True\nmp-1219205,\"{'Sm': 6.0, 'S': 2.0, 'O': 2.0, 'F': 10.0}\",\"('F', 'O', 'S', 'Sm')\",OTHERS,True\nmp-1104836,\"{'Re': 2.0, 'Cl': 6.0, 'O': 6.0}\",\"('Cl', 'O', 'Re')\",OTHERS,True\nmp-1079374,\"{'Th': 2.0, 'Ta': 2.0, 'N': 6.0}\",\"('N', 'Ta', 'Th')\",OTHERS,True\nmp-1215234,\"{'Zr': 2.0, 'Mn': 2.0, 'Ni': 2.0}\",\"('Mn', 'Ni', 'Zr')\",OTHERS,True\nmvc-4357,\"{'Ca': 4.0, 'Ta': 2.0, 'V': 2.0, 'O': 12.0}\",\"('Ca', 'O', 'Ta', 'V')\",OTHERS,True\nmp-761156,\"{'Li': 3.0, 'La': 5.0, 'Ti': 6.0, 'Nb': 2.0, 'O': 26.0}\",\"('La', 'Li', 'Nb', 'O', 'Ti')\",OTHERS,True\nmp-1185991,\"{'Mn': 1.0, 'Cd': 3.0}\",\"('Cd', 'Mn')\",OTHERS,True\nmp-504922,\"{'U': 4.0, 'Pb': 4.0, 'O': 16.0}\",\"('O', 'Pb', 'U')\",OTHERS,True\nmp-559335,\"{'Zn': 2.0, 'Ag': 4.0, 'C': 8.0, 'S': 8.0, 'N': 8.0}\",\"('Ag', 'C', 'N', 'S', 'Zn')\",OTHERS,True\nmp-1221638,\"{'Mn': 1.0, 'Cr': 3.0, 'Te': 4.0}\",\"('Cr', 'Mn', 'Te')\",OTHERS,True\nmp-19217,\"{'O': 18.0, 'Mn': 6.0, 'Er': 6.0}\",\"('Er', 'Mn', 'O')\",OTHERS,True\nmp-707494,\"{'B': 44.0, 'H': 36.0, 'C': 4.0, 'Br': 24.0, 'O': 16.0}\",\"('B', 'Br', 'C', 'H', 'O')\",OTHERS,True\nmp-1186219,\"{'Nb': 6.0, 'Se': 2.0}\",\"('Nb', 'Se')\",OTHERS,True\nmp-568591,\"{'La': 6.0, 'C': 2.0, 'I': 10.0}\",\"('C', 'I', 'La')\",OTHERS,True\nmp-1097181,\"{'Zr': 1.0, 'Sc': 1.0, 'Zn': 2.0}\",\"('Sc', 'Zn', 'Zr')\",OTHERS,True\nmp-604368,\"{'K': 4.0, 'Na': 2.0, 'V': 10.0, 'H': 20.0, 'O': 38.0}\",\"('H', 'K', 'Na', 'O', 'V')\",OTHERS,True\nmp-1202855,\"{'C': 20.0, 'I': 6.0, 'N': 8.0}\",\"('C', 'I', 'N')\",OTHERS,True\nmp-1094064,\"{'Sb': 1.0, 'H': 3.0}\",\"('H', 'Sb')\",OTHERS,True\nmp-1097218,\"{'Li': 1.0, 'Cd': 2.0, 'In': 1.0}\",\"('Cd', 'In', 'Li')\",OTHERS,True\nmp-759611,\"{'Ba': 4.0, 'Li': 4.0, 'Ca': 4.0, 'V': 4.0, 'P': 8.0, 'O': 36.0}\",\"('Ba', 'Ca', 'Li', 'O', 'P', 'V')\",OTHERS,True\nmp-1227942,\"{'Ba': 1.0, 'Ga': 1.0, 'Ge': 1.0}\",\"('Ba', 'Ga', 'Ge')\",OTHERS,True\nmp-1175397,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1102504,\"{'Co': 4.0, 'P': 4.0, 'W': 4.0}\",\"('Co', 'P', 'W')\",OTHERS,True\nmp-559366,\"{'P': 6.0, 'Br': 6.0, 'N': 6.0, 'F': 6.0}\",\"('Br', 'F', 'N', 'P')\",OTHERS,True\nmp-1204560,\"{'Rb': 4.0, 'Ce': 2.0, 'N': 10.0, 'O': 38.0}\",\"('Ce', 'N', 'O', 'Rb')\",OTHERS,True\nmp-1214450,\"{'Ba': 1.0, 'Nb': 6.0, 'H': 1.0, 'O': 16.0}\",\"('Ba', 'H', 'Nb', 'O')\",OTHERS,True\nmp-554732,\"{'Rb': 4.0, 'Sb': 4.0, 'S': 4.0, 'O': 16.0, 'F': 8.0}\",\"('F', 'O', 'Rb', 'S', 'Sb')\",OTHERS,True\nmp-1202662,\"{'Sc': 8.0, 'Si': 16.0, 'W': 12.0}\",\"('Sc', 'Si', 'W')\",OTHERS,True\nmp-1029702,\"{'Mg': 4.0, 'Ti': 4.0, 'N': 8.0}\",\"('Mg', 'N', 'Ti')\",OTHERS,True\nmp-1207402,\"{'Zr': 12.0, 'Al': 4.0, 'Fe': 2.0, 'H': 20.0}\",\"('Al', 'Fe', 'H', 'Zr')\",OTHERS,True\nmp-1211034,\"{'Mg': 4.0, 'Si': 8.0, 'O': 22.0}\",\"('Mg', 'O', 'Si')\",OTHERS,True\nmp-1247565,\"{'Sb': 16.0, 'Te': 12.0, 'N': 8.0}\",\"('N', 'Sb', 'Te')\",OTHERS,True\nmp-773137,\"{'K': 2.0, 'Ca': 2.0, 'Bi': 2.0}\",\"('Bi', 'Ca', 'K')\",OTHERS,True\nmp-1079270,\"{'Tm': 2.0, 'Ni': 1.0, 'Sn': 6.0}\",\"('Ni', 'Sn', 'Tm')\",OTHERS,True\nmp-31143,\"{'Er': 8.0, 'Sn': 4.0, 'Au': 8.0}\",\"('Au', 'Er', 'Sn')\",OTHERS,True\nmp-554673,\"{'K': 4.0, 'Zn': 4.0, 'B': 4.0, 'P': 8.0, 'O': 32.0}\",\"('B', 'K', 'O', 'P', 'Zn')\",OTHERS,True\nmp-1208274,\"{'Th': 6.0, 'Si': 24.0, 'Ru': 8.0}\",\"('Ru', 'Si', 'Th')\",OTHERS,True\nmp-1193963,\"{'Mg': 8.0, 'Si': 4.0, 'S': 16.0}\",\"('Mg', 'S', 'Si')\",OTHERS,True\nmp-761209,\"{'Li': 6.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-24211,\"{'Co': 2.0, 'H': 16.0, 'I': 4.0, 'O': 20.0}\",\"('Co', 'H', 'I', 'O')\",OTHERS,True\nmp-1179383,\"{'Ti': 4.0, 'Si': 8.0, 'C': 12.0, 'N': 8.0, 'Cl': 20.0}\",\"('C', 'Cl', 'N', 'Si', 'Ti')\",OTHERS,True\nmp-1027053,\"{'Te': 4.0, 'Mo': 3.0, 'W': 1.0, 'Se': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,True\nmp-972591,\"{'Sm': 1.0, 'Mg': 16.0, 'Al': 12.0}\",\"('Al', 'Mg', 'Sm')\",OTHERS,True\nmp-1177772,\"{'Li': 3.0, 'Cr': 2.0, 'Fe': 3.0, 'O': 10.0}\",\"('Cr', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-1224003,\"{'Ho': 3.0, 'Mn': 3.0, 'Ga': 2.0, 'Si': 1.0}\",\"('Ga', 'Ho', 'Mn', 'Si')\",OTHERS,True\nmp-1219252,\"{'Sc': 1.0, 'Tl': 1.0, 'F': 6.0}\",\"('F', 'Sc', 'Tl')\",OTHERS,True\nmp-559879,\"{'P': 4.0, 'S': 8.0, 'N': 4.0, 'Cl': 24.0, 'O': 16.0}\",\"('Cl', 'N', 'O', 'P', 'S')\",OTHERS,True\nmp-1210257,\"{'Na': 6.0, 'Ti': 2.0, 'F': 12.0}\",\"('F', 'Na', 'Ti')\",OTHERS,True\nmp-1075111,\"{'Mg': 6.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-675211,\"{'W': 7.0, 'O': 21.0}\",\"('O', 'W')\",OTHERS,True\nmp-1225635,\"{'Fe': 8.0, 'Co': 2.0, 'Bi': 10.0, 'O': 30.0}\",\"('Bi', 'Co', 'Fe', 'O')\",OTHERS,True\nmp-1112599,\"{'Cs': 2.0, 'K': 1.0, 'Au': 1.0, 'F': 6.0}\",\"('Au', 'Cs', 'F', 'K')\",OTHERS,True\nmp-777673,\"{'Li': 8.0, 'Fe': 4.0, 'F': 16.0}\",\"('F', 'Fe', 'Li')\",OTHERS,True\nmp-758671,\"{'Li': 4.0, 'Mn': 4.0, 'P': 12.0, 'O': 36.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,True\nmp-1095043,\"{'Sc': 3.0, 'Os': 1.0, 'C': 4.0}\",\"('C', 'Os', 'Sc')\",OTHERS,True\nmp-1245772,\"{'Na': 4.0, 'Mg': 4.0, 'N': 4.0}\",\"('Mg', 'N', 'Na')\",OTHERS,True\nmp-36216,\"{'Ag': 4.0, 'S': 2.0}\",\"('Ag', 'S')\",OTHERS,True\nmp-1246241,\"{'Fe': 8.0, 'Ru': 2.0, 'N': 8.0}\",\"('Fe', 'N', 'Ru')\",OTHERS,True\nmp-771359,\"{'Cu': 16.0, 'O': 24.0}\",\"('Cu', 'O')\",OTHERS,True\nmp-642281,\"{'Sr': 21.0, 'In': 8.0, 'Pb': 7.0}\",\"('In', 'Pb', 'Sr')\",OTHERS,True\nmp-32833,\"{'Ho': 24.0, 'Se': 44.0}\",\"('Ho', 'Se')\",OTHERS,True\nmp-861600,\"{'Ho': 2.0, 'Zn': 1.0, 'In': 1.0}\",\"('Ho', 'In', 'Zn')\",OTHERS,True\nmp-1008733,{'Ge': 2.0},\"('Ge',)\",OTHERS,True\nmp-1076337,\"{'Ba': 2.0, 'Sr': 6.0, 'Ti': 7.0, 'Mn': 1.0, 'O': 24.0}\",\"('Ba', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,True\nmp-1198309,\"{'Sc': 40.0, 'Os': 8.0, 'Cl': 72.0}\",\"('Cl', 'Os', 'Sc')\",OTHERS,True\nmp-1025314,\"{'Mn': 1.0, 'Al': 2.0, 'S': 4.0}\",\"('Al', 'Mn', 'S')\",OTHERS,True\nmp-28918,\"{'W': 2.0, 'Sb': 4.0, 'O': 12.0}\",\"('O', 'Sb', 'W')\",OTHERS,True\nmp-1213579,\"{'Gd': 8.0, 'Sc': 12.0, 'Si': 16.0}\",\"('Gd', 'Sc', 'Si')\",OTHERS,True\nmp-766514,\"{'Li': 8.0, 'Fe': 6.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-1183872,\"{'Ce': 3.0, 'Cu': 1.0}\",\"('Ce', 'Cu')\",OTHERS,True\nmp-18890,\"{'Ca': 2.0, 'Fe': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Ca', 'Fe', 'O', 'Si')\",OTHERS,True\nmp-1188603,\"{'La': 1.0, 'Sb': 12.0, 'Ru': 4.0}\",\"('La', 'Ru', 'Sb')\",OTHERS,True\nmp-1211019,\"{'Na': 6.0, 'Mg': 10.0, 'Si': 16.0, 'H': 4.0, 'O': 48.0}\",\"('H', 'Mg', 'Na', 'O', 'Si')\",OTHERS,True\nmp-697593,\"{'Te': 28.0, 'W': 4.0, 'Cl': 20.0, 'O': 4.0}\",\"('Cl', 'O', 'Te', 'W')\",OTHERS,True\nmp-24065,\"{'H': 20.0, 'B': 4.0, 'O': 18.0, 'Ca': 2.0}\",\"('B', 'Ca', 'H', 'O')\",OTHERS,True\nmp-760183,\"{'Li': 10.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-865280,\"{'Nb': 1.0, 'Al': 1.0, 'Fe': 2.0}\",\"('Al', 'Fe', 'Nb')\",OTHERS,True\nmp-866712,\"{'Rb': 2.0, 'Mn': 2.0, 'P': 6.0, 'H': 2.0, 'O': 20.0}\",\"('H', 'Mn', 'O', 'P', 'Rb')\",OTHERS,True\nmp-775429,\"{'Ba': 4.0, 'Li': 1.0, 'Bi': 3.0, 'O': 11.0}\",\"('Ba', 'Bi', 'Li', 'O')\",OTHERS,True\nmp-2102,\"{'Ge': 4.0, 'Pr': 4.0}\",\"('Ge', 'Pr')\",OTHERS,True\nmp-1225821,\"{'Cu': 2.0, 'P': 2.0, 'O': 7.0}\",\"('Cu', 'O', 'P')\",OTHERS,True\nmp-622570,\"{'Ti': 4.0, 'Cu': 6.0}\",\"('Cu', 'Ti')\",OTHERS,True\nmp-757962,\"{'Li': 6.0, 'Co': 6.0, 'P': 6.0, 'O': 24.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,True\nmp-10180,\"{'Li': 2.0, 'Pd': 1.0, 'Sb': 1.0}\",\"('Li', 'Pd', 'Sb')\",OTHERS,True\nmp-1078870,\"{'U': 3.0, 'Ga': 3.0, 'Rh': 3.0}\",\"('Ga', 'Rh', 'U')\",OTHERS,True\nmp-1104125,\"{'Y': 4.0, 'Cd': 2.0, 'Se': 8.0}\",\"('Cd', 'Se', 'Y')\",OTHERS,True\nmp-1247481,\"{'Li': 4.0, 'Mn': 4.0, 'N': 4.0}\",\"('Li', 'Mn', 'N')\",OTHERS,True\nmp-768385,\"{'Ba': 8.0, 'Y': 4.0, 'Br': 28.0}\",\"('Ba', 'Br', 'Y')\",OTHERS,True\nmp-1179389,\"{'Te': 2.0, 'C': 8.0, 'S': 8.0, 'N': 16.0, 'Cl': 4.0, 'O': 4.0}\",\"('C', 'Cl', 'N', 'O', 'S', 'Te')\",OTHERS,True\nmp-2850,\"{'B': 4.0, 'Os': 2.0}\",\"('B', 'Os')\",OTHERS,True\nmp-9275,\"{'O': 38.0, 'Ta': 12.0, 'Th': 4.0}\",\"('O', 'Ta', 'Th')\",OTHERS,True\nmp-1190622,\"{'Ba': 4.0, 'Cr': 4.0, 'O': 16.0}\",\"('Ba', 'Cr', 'O')\",OTHERS,True\nmp-972300,\"{'Sr': 3.0, 'Lu': 1.0}\",\"('Lu', 'Sr')\",OTHERS,True\nmp-1190981,\"{'Sr': 8.0, 'Zn': 4.0, 'S': 12.0}\",\"('S', 'Sr', 'Zn')\",OTHERS,True\nmp-30677,\"{'Ga': 20.0, 'Tm': 12.0}\",\"('Ga', 'Tm')\",OTHERS,True\nmp-557755,\"{'Ba': 6.0, 'Cr': 4.0, 'Mo': 2.0, 'O': 18.0}\",\"('Ba', 'Cr', 'Mo', 'O')\",OTHERS,True\nmp-642834,\"{'Ba': 2.0, 'H': 10.0, 'Cl': 2.0, 'O': 6.0}\",\"('Ba', 'Cl', 'H', 'O')\",OTHERS,True\nmp-754462,\"{'Sb': 2.0, 'Te': 4.0, 'F': 12.0}\",\"('F', 'Sb', 'Te')\",OTHERS,True\nmp-1101328,\"{'V': 18.0, 'O': 44.0}\",\"('O', 'V')\",OTHERS,True\nmp-1192903,\"{'Bi': 6.0, 'As': 4.0, 'O': 20.0}\",\"('As', 'Bi', 'O')\",OTHERS,True\nmp-976405,\"{'Na': 1.0, 'Er': 3.0}\",\"('Er', 'Na')\",OTHERS,True\nmp-510638,\"{'Ga': 2.0, 'Mn': 2.0, 'F': 10.0, 'O': 4.0, 'H': 8.0}\",\"('F', 'Ga', 'H', 'Mn', 'O')\",OTHERS,True\nmp-1112215,\"{'K': 2.0, 'Tm': 1.0, 'Cu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cu', 'K', 'Tm')\",OTHERS,True\nmp-1029458,\"{'Zn': 4.0, 'Cr': 2.0, 'N': 6.0}\",\"('Cr', 'N', 'Zn')\",OTHERS,True\nmp-3772,\"{'Ga': 2.0, 'Se': 4.0, 'Cd': 1.0}\",\"('Cd', 'Ga', 'Se')\",OTHERS,True\nmp-10444,\"{'O': 10.0, 'Al': 4.0, 'Ca': 4.0}\",\"('Al', 'Ca', 'O')\",OTHERS,True\nmp-773707,\"{'Li': 4.0, 'Ti': 3.0, 'Mn': 2.0, 'V': 3.0, 'O': 16.0}\",\"('Li', 'Mn', 'O', 'Ti', 'V')\",OTHERS,True\nmp-1177635,\"{'Li': 3.0, 'Mn': 2.0, 'Sb': 1.0, 'O': 6.0}\",\"('Li', 'Mn', 'O', 'Sb')\",OTHERS,True\nmp-756151,\"{'Li': 4.0, 'Cr': 5.0, 'W': 1.0, 'O': 12.0}\",\"('Cr', 'Li', 'O', 'W')\",OTHERS,True\nmp-1220278,\"{'Nd': 4.0, 'Fe': 4.0, 'Co': 12.0, 'B': 3.0, 'C': 1.0}\",\"('B', 'C', 'Co', 'Fe', 'Nd')\",OTHERS,True\nmp-1213404,\"{'Dy': 2.0, 'N': 6.0, 'O': 28.0}\",\"('Dy', 'N', 'O')\",OTHERS,True\nmp-1206434,\"{'Nd': 1.0, 'Ga': 2.0, 'Cu': 2.0}\",\"('Cu', 'Ga', 'Nd')\",OTHERS,True\nmp-1029069,\"{'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,True\nmp-1225998,\"{'Co': 1.0, 'Pt': 1.0}\",\"('Co', 'Pt')\",OTHERS,True\nmp-977129,\"{'Hg': 2.0, 'Pd': 6.0}\",\"('Hg', 'Pd')\",OTHERS,True\nmp-1212660,\"{'Ga': 2.0, 'Cu': 2.0, 'Br': 8.0}\",\"('Br', 'Cu', 'Ga')\",OTHERS,True\nmp-722270,\"{'Zr': 4.0, 'H': 28.0, 'C': 4.0, 'N': 16.0, 'F': 20.0}\",\"('C', 'F', 'H', 'N', 'Zr')\",OTHERS,True\nmp-976588,\"{'Ho': 1.0, 'Th': 3.0}\",\"('Ho', 'Th')\",OTHERS,True\nmp-769616,\"{'Na': 4.0, 'Cr': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Cr', 'Na', 'O', 'P')\",OTHERS,True\nmp-1095493,\"{'Cd': 4.0, 'Se': 8.0}\",\"('Cd', 'Se')\",OTHERS,True\nmp-1223773,\"{'K': 5.0, 'Bi': 4.0}\",\"('Bi', 'K')\",OTHERS,True\nmp-982557,\"{'Ho': 2.0, 'Ga': 6.0}\",\"('Ga', 'Ho')\",OTHERS,True\nmp-1190171,{'C': 16.0},\"('C',)\",OTHERS,True\nmp-673096,\"{'Li': 3.0, 'Sn': 1.0, 'P': 6.0, 'O': 18.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,True\nmp-1189833,\"{'Yb': 4.0, 'Si': 4.0, 'Pd': 8.0}\",\"('Pd', 'Si', 'Yb')\",OTHERS,True\nmp-1103785,\"{'Pr': 3.0, 'Al': 11.0}\",\"('Al', 'Pr')\",OTHERS,True\nmp-1245450,\"{'Ca': 32.0, 'Mn': 12.0, 'N': 36.0}\",\"('Ca', 'Mn', 'N')\",OTHERS,True\nmp-1002223,\"{'Dy': 1.0, 'P': 1.0}\",\"('Dy', 'P')\",OTHERS,True\nmp-772087,\"{'Er': 6.0, 'Sb': 10.0, 'O': 24.0}\",\"('Er', 'O', 'Sb')\",OTHERS,True\nmp-862599,\"{'Li': 1.0, 'Er': 1.0, 'Au': 2.0}\",\"('Au', 'Er', 'Li')\",OTHERS,True\nmp-1225237,\"{'Ga': 2.0, 'P': 4.0, 'C': 6.0, 'N': 4.0, 'O': 16.0, 'F': 2.0}\",\"('C', 'F', 'Ga', 'N', 'O', 'P')\",OTHERS,True\nmp-1219858,\"{'Pr': 2.0, 'Si': 3.0, 'Ni': 1.0}\",\"('Ni', 'Pr', 'Si')\",OTHERS,True\nmp-1217980,\"{'Ta': 2.0, 'Be': 8.0, 'Mo': 2.0}\",\"('Be', 'Mo', 'Ta')\",OTHERS,True\nmp-1097071,\"{'Li': 1.0, 'Y': 2.0, 'Co': 1.0}\",\"('Co', 'Li', 'Y')\",OTHERS,True\nmp-1019575,\"{'Ca': 16.0, 'Al': 24.0, 'S': 4.0, 'O': 64.0}\",\"('Al', 'Ca', 'O', 'S')\",OTHERS,True\nmp-757131,\"{'Sn': 2.0, 'P': 8.0, 'O': 24.0}\",\"('O', 'P', 'Sn')\",OTHERS,True\nmp-774845,\"{'Li': 4.0, 'Ti': 2.0, 'Co': 3.0, 'Sn': 3.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'Sn', 'Ti')\",OTHERS,True\nmp-569471,\"{'U': 2.0, 'B': 4.0, 'C': 2.0}\",\"('B', 'C', 'U')\",OTHERS,True\nmp-1180514,\"{'Li': 1.0, 'Ti': 1.0, 'S': 2.0, 'O': 2.0}\",\"('Li', 'O', 'S', 'Ti')\",OTHERS,True\nmp-761229,\"{'Na': 8.0, 'Mn': 4.0, 'O': 12.0}\",\"('Mn', 'Na', 'O')\",OTHERS,True\nmp-18468,\"{'C': 4.0, 'Si': 4.0, 'Mn': 20.0}\",\"('C', 'Mn', 'Si')\",OTHERS,True\nmp-1219558,\"{'Sb': 2.0, 'Pb': 4.0, 'S': 4.0, 'I': 6.0}\",\"('I', 'Pb', 'S', 'Sb')\",OTHERS,True\nmp-778813,\"{'Li': 7.0, 'Mn': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1094397,\"{'Y': 6.0, 'Mg': 2.0}\",\"('Mg', 'Y')\",OTHERS,True\nmp-722900,\"{'Ca': 16.0, 'H': 48.0, 'N': 16.0, 'O': 80.0}\",\"('Ca', 'H', 'N', 'O')\",OTHERS,True\nmp-1246336,\"{'Li': 12.0, 'Rh': 4.0, 'N': 8.0}\",\"('Li', 'N', 'Rh')\",OTHERS,True\nmp-683875,\"{'Te': 4.0, 'S': 28.0, 'Br': 8.0}\",\"('Br', 'S', 'Te')\",OTHERS,True\nmp-510475,\"{'Y': 8.0, 'Cu': 8.0, 'O': 20.0}\",\"('Cu', 'O', 'Y')\",OTHERS,True\nmp-1176777,\"{'Li': 3.0, 'Co': 3.0, 'B': 3.0, 'O': 9.0}\",\"('B', 'Co', 'Li', 'O')\",OTHERS,True\nmp-781617,\"{'Li': 5.0, 'Mn': 6.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1215056,\"{'Ba': 3.0, 'Mn': 15.0, 'S': 18.0, 'O': 72.0}\",\"('Ba', 'Mn', 'O', 'S')\",OTHERS,True\nmp-11790,\"{'Cu': 4.0, 'Se': 8.0, 'La': 4.0}\",\"('Cu', 'La', 'Se')\",OTHERS,True\nmp-703476,\"{'P': 4.0, 'H': 32.0, 'N': 8.0, 'O': 14.0}\",\"('H', 'N', 'O', 'P')\",OTHERS,True\nmp-676923,\"{'Cd': 4.0, 'Bi': 12.0, 'O': 22.0}\",\"('Bi', 'Cd', 'O')\",OTHERS,True\nmp-677490,\"{'Li': 16.0, 'Nd': 12.0, 'Sb': 4.0, 'Te': 4.0, 'O': 48.0}\",\"('Li', 'Nd', 'O', 'Sb', 'Te')\",OTHERS,True\nmp-685969,\"{'Ag': 8.0, 'Ge': 1.0, 'Te': 6.0}\",\"('Ag', 'Ge', 'Te')\",OTHERS,True\nmp-1204057,\"{'Si': 72.0, 'O': 144.0}\",\"('O', 'Si')\",OTHERS,True\nmp-18628,\"{'B': 8.0, 'C': 20.0, 'Dy': 20.0}\",\"('B', 'C', 'Dy')\",OTHERS,True\nmp-1216793,\"{'U': 3.0, 'Ni': 3.0, 'P': 6.0}\",\"('Ni', 'P', 'U')\",OTHERS,True\nmp-557104,\"{'Li': 4.0, 'Al': 4.0, 'B': 8.0, 'O': 20.0}\",\"('Al', 'B', 'Li', 'O')\",OTHERS,True\nmp-636284,\"{'W': 4.0, 'O': 12.0}\",\"('O', 'W')\",OTHERS,True\nmp-757790,\"{'Li': 1.0, 'P': 2.0, 'W': 1.0, 'O': 8.0}\",\"('Li', 'O', 'P', 'W')\",OTHERS,True\nmp-1202256,\"{'K': 8.0, 'Cd': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Cd', 'K', 'O', 'P')\",OTHERS,True\nmp-766510,\"{'Li': 12.0, 'Mn': 1.0, 'Fe': 3.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'Mn', 'O', 'P')\",OTHERS,True\nmp-1212595,\"{'Ho': 4.0, 'Hf': 4.0, 'Mo': 14.0, 'O': 56.0}\",\"('Hf', 'Ho', 'Mo', 'O')\",OTHERS,True\nmp-1203775,\"{'Er': 6.0, 'Ge': 26.0, 'Ir': 8.0}\",\"('Er', 'Ge', 'Ir')\",OTHERS,True\nmp-1200490,\"{'Tb': 16.0, 'Al': 8.0, 'O': 36.0}\",\"('Al', 'O', 'Tb')\",OTHERS,True\nmp-20290,\"{'Tb': 2.0, 'Cu': 2.0, 'Pb': 2.0}\",\"('Cu', 'Pb', 'Tb')\",OTHERS,True\nmp-560402,\"{'U': 6.0, 'O': 16.0}\",\"('O', 'U')\",OTHERS,True\nmp-698171,\"{'Cu': 8.0, 'H': 14.0, 'S': 2.0, 'O': 22.0}\",\"('Cu', 'H', 'O', 'S')\",OTHERS,True\nmvc-13555,\"{'Cr': 1.0, 'S': 2.0}\",\"('Cr', 'S')\",OTHERS,True\nmp-1103228,\"{'Bi': 4.0, 'Ir': 4.0, 'Se': 4.0}\",\"('Bi', 'Ir', 'Se')\",OTHERS,True\nmvc-9427,\"{'Ca': 4.0, 'Ti': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Ca', 'O', 'P', 'Ti')\",OTHERS,True\nmp-1176119,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-2656,\"{'S': 8.0, 'Nd': 6.0}\",\"('Nd', 'S')\",OTHERS,True\nmvc-13985,\"{'Sn': 2.0, 'F': 8.0}\",\"('F', 'Sn')\",OTHERS,True\nmp-1199220,\"{'Eu': 6.0, 'Rh': 8.0, 'Pb': 26.0}\",\"('Eu', 'Pb', 'Rh')\",OTHERS,True\nmp-697834,\"{'Ca': 4.0, 'La': 4.0, 'Mn': 7.0, 'Ni': 1.0, 'O': 24.0}\",\"('Ca', 'La', 'Mn', 'Ni', 'O')\",OTHERS,True\nmp-24595,\"{'H': 2.0, 'B': 5.0, 'O': 10.0, 'Cl': 1.0, 'Ca': 2.0}\",\"('B', 'Ca', 'Cl', 'H', 'O')\",OTHERS,True\nmp-1195483,\"{'Ba': 4.0, 'Th': 8.0, 'S': 20.0}\",\"('Ba', 'S', 'Th')\",OTHERS,True\nmp-24510,\"{'H': 4.0, 'O': 14.0, 'I': 4.0, 'Ba': 2.0}\",\"('Ba', 'H', 'I', 'O')\",OTHERS,True\nmp-1105605,\"{'Tb': 7.0, 'Fe': 1.0, 'I': 12.0}\",\"('Fe', 'I', 'Tb')\",OTHERS,True\nmp-18903,\"{'O': 6.0, 'Sr': 2.0, 'Cd': 1.0, 'W': 1.0}\",\"('Cd', 'O', 'Sr', 'W')\",OTHERS,True\nmp-1198571,\"{'Ba': 8.0, 'Eu': 7.0, 'Cl': 34.0}\",\"('Ba', 'Cl', 'Eu')\",OTHERS,True\nmp-16223,\"{'Te': 8.0, 'Tl': 8.0}\",\"('Te', 'Tl')\",OTHERS,True\nmvc-3948,\"{'Mg': 4.0, 'Cr': 4.0, 'O': 10.0}\",\"('Cr', 'Mg', 'O')\",OTHERS,True\nmp-1184410,\"{'Eu': 2.0, 'Mg': 2.0}\",\"('Eu', 'Mg')\",OTHERS,True\nmp-1102773,\"{'K': 8.0, 'Bi': 1.0, 'O': 3.0}\",\"('Bi', 'K', 'O')\",OTHERS,True\nmp-1191873,\"{'Sm': 6.0, 'Mn': 2.0, 'Ga': 2.0, 'S': 14.0}\",\"('Ga', 'Mn', 'S', 'Sm')\",OTHERS,True\nmp-27358,\"{'O': 20.0, 'Se': 8.0}\",\"('O', 'Se')\",OTHERS,True\nmp-31088,\"{'Pd': 4.0, 'Dy': 4.0, 'Pb': 2.0}\",\"('Dy', 'Pb', 'Pd')\",OTHERS,True\nmp-672671,\"{'Pb': 3.0, 'I': 6.0}\",\"('I', 'Pb')\",OTHERS,True\nmp-755419,\"{'Bi': 2.0, 'Te': 1.0, 'O': 2.0}\",\"('Bi', 'O', 'Te')\",OTHERS,True\nmp-1185263,\"{'Li': 1.0, 'Pa': 1.0, 'O': 3.0}\",\"('Li', 'O', 'Pa')\",OTHERS,True\nmp-1183100,\"{'Ac': 6.0, 'Cd': 2.0}\",\"('Ac', 'Cd')\",OTHERS,True\nmp-1094181,\"{'Hf': 3.0, 'Mg': 3.0}\",\"('Hf', 'Mg')\",OTHERS,True\nmvc-11366,\"{'Co': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Co', 'O', 'Si')\",OTHERS,True\nmp-649676,\"{'Ca': 12.0, 'Si': 12.0, 'O': 36.0}\",\"('Ca', 'O', 'Si')\",OTHERS,True\nmp-1227184,\"{'Ca': 1.0, 'Nd': 3.0, 'Cr': 4.0, 'O': 16.0}\",\"('Ca', 'Cr', 'Nd', 'O')\",OTHERS,True\nmp-1226017,\"{'Co': 1.0, 'Ni': 1.0, 'Te': 2.0}\",\"('Co', 'Ni', 'Te')\",OTHERS,True\nmp-705416,\"{'Fe': 24.0, 'O': 32.0}\",\"('Fe', 'O')\",OTHERS,True\nmp-765089,\"{'Ti': 3.0, 'V': 2.0, 'Cu': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Cu', 'O', 'P', 'Ti', 'V')\",OTHERS,True\nmp-1226182,\"{'Cs': 2.0, 'Al': 1.0, 'Te': 3.0, 'O': 12.0}\",\"('Al', 'Cs', 'O', 'Te')\",OTHERS,True\nmp-1072256,\"{'Hf': 4.0, 'Ge': 2.0}\",\"('Ge', 'Hf')\",OTHERS,True\nmp-14653,\"{'F': 12.0, 'Ag': 1.0, 'Sb': 2.0}\",\"('Ag', 'F', 'Sb')\",OTHERS,True\nmp-863703,\"{'Pm': 2.0, 'Mg': 1.0, 'Sn': 1.0}\",\"('Mg', 'Pm', 'Sn')\",OTHERS,True\nmp-1199443,\"{'Sn': 8.0, 'H': 48.0, 'C': 8.0, 'N': 24.0, 'Cl': 24.0}\",\"('C', 'Cl', 'H', 'N', 'Sn')\",OTHERS,True\nmp-1175604,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1094416,\"{'Mg': 8.0, 'Ti': 8.0}\",\"('Mg', 'Ti')\",OTHERS,True\nmp-942701,\"{'Li': 2.0, 'Co': 2.0, 'S': 2.0, 'O': 8.0, 'F': 2.0}\",\"('Co', 'F', 'Li', 'O', 'S')\",OTHERS,True\nmp-16867,\"{'O': 16.0, 'Cu': 2.0, 'Yb': 2.0, 'W': 4.0}\",\"('Cu', 'O', 'W', 'Yb')\",OTHERS,True\nmvc-5180,\"{'Ca': 4.0, 'Cr': 4.0, 'O': 8.0}\",\"('Ca', 'Cr', 'O')\",OTHERS,True\nmp-755433,\"{'Li': 2.0, 'Co': 4.0, 'O': 4.0, 'F': 6.0}\",\"('Co', 'F', 'Li', 'O')\",OTHERS,True\nmp-1079075,\"{'Y': 2.0, 'Ga': 4.0, 'Pd': 2.0}\",\"('Ga', 'Pd', 'Y')\",OTHERS,True\nmp-671913,\"{'Mo': 8.0, 'Se': 16.0, 'Cl': 32.0, 'O': 8.0}\",\"('Cl', 'Mo', 'O', 'Se')\",OTHERS,True\nmp-759864,\"{'Li': 2.0, 'V': 2.0, 'Cr': 2.0, 'P': 4.0, 'H': 4.0, 'O': 20.0}\",\"('Cr', 'H', 'Li', 'O', 'P', 'V')\",OTHERS,True\nmp-972176,\"{'Zr': 10.0, 'Al': 6.0, 'C': 2.0}\",\"('Al', 'C', 'Zr')\",OTHERS,True\nmp-1177874,\"{'Li': 8.0, 'Ni': 12.0, 'W': 4.0, 'O': 32.0}\",\"('Li', 'Ni', 'O', 'W')\",OTHERS,True\nmp-759672,\"{'Li': 2.0, 'V': 2.0, 'O': 2.0, 'F': 6.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,True\nmp-1101598,\"{'Li': 2.0, 'Ni': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,True\nmp-1226589,\"{'Ce': 1.0, 'Nd': 1.0, 'Al': 2.0, 'O': 6.0}\",\"('Al', 'Ce', 'Nd', 'O')\",OTHERS,True\nmp-1184159,\"{'Er': 1.0, 'Hf': 1.0, 'Ru': 2.0}\",\"('Er', 'Hf', 'Ru')\",OTHERS,True\nmp-1023942,\"{'Te': 4.0, 'W': 2.0}\",\"('Te', 'W')\",OTHERS,True\nmp-761063,\"{'Li': 6.0, 'Fe': 2.0, 'Ni': 6.0, 'O': 16.0}\",\"('Fe', 'Li', 'Ni', 'O')\",OTHERS,True\nmp-1036224,\"{'Mg': 14.0, 'Mn': 1.0, 'Sn': 1.0, 'O': 16.0}\",\"('Mg', 'Mn', 'O', 'Sn')\",OTHERS,True\nmp-1188434,\"{'Y': 10.0, 'Tl': 6.0}\",\"('Tl', 'Y')\",OTHERS,True\nmp-961650,\"{'Al': 1.0, 'V': 1.0, 'Ni': 1.0}\",\"('Al', 'Ni', 'V')\",OTHERS,True\nmp-1185128,\"{'La': 6.0, 'Hf': 2.0}\",\"('Hf', 'La')\",OTHERS,True\nmp-780086,\"{'Li': 8.0, 'Mn': 1.0, 'O': 4.0, 'F': 2.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1100580,\"{'Li': 9.0, 'Mn': 7.0, 'O': 16.0}\",\"('Li', 'Mn', 'O')\",OTHERS,True\nmp-1201749,\"{'Sr': 16.0, 'As': 16.0, 'O': 56.0}\",\"('As', 'O', 'Sr')\",OTHERS,True\nmp-703370,\"{'Ca': 13.0, 'Si': 10.0, 'H': 12.0, 'O': 34.0, 'F': 10.0}\",\"('Ca', 'F', 'H', 'O', 'Si')\",OTHERS,True\nmp-865757,\"{'Yb': 1.0, 'Ga': 1.0, 'Rh': 2.0}\",\"('Ga', 'Rh', 'Yb')\",OTHERS,True\nmp-862319,\"{'Ac': 2.0, 'Cd': 1.0, 'Sn': 1.0}\",\"('Ac', 'Cd', 'Sn')\",OTHERS,True\nmp-1178498,\"{'Cd': 2.0, 'Co': 4.0, 'O': 8.0}\",\"('Cd', 'Co', 'O')\",OTHERS,True\nmp-24123,\"{'H': 12.0, 'B': 12.0, 'Rb': 2.0}\",\"('B', 'H', 'Rb')\",OTHERS,True\nmp-758074,\"{'Li': 4.0, 'V': 4.0, 'P': 4.0, 'O': 20.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-761579,\"{'Fe': 2.0, 'Co': 6.0, 'O': 16.0}\",\"('Co', 'Fe', 'O')\",OTHERS,True\nmp-778885,\"{'Li': 10.0, 'Mn': 3.0, 'Cr': 2.0, 'Ni': 3.0, 'O': 16.0}\",\"('Cr', 'Li', 'Mn', 'Ni', 'O')\",OTHERS,True\nmp-24110,\"{'H': 18.0, 'N': 6.0, 'O': 8.0, 'Cl': 4.0, 'Ru': 1.0, 'Cs': 1.0}\",\"('Cl', 'Cs', 'H', 'N', 'O', 'Ru')\",OTHERS,True\nmp-775136,\"{'Li': 4.0, 'Cr': 3.0, 'Co': 3.0, 'Te': 2.0, 'O': 16.0}\",\"('Co', 'Cr', 'Li', 'O', 'Te')\",OTHERS,True\nmp-1069346,\"{'Pr': 1.0, 'V': 1.0, 'O': 3.0}\",\"('O', 'Pr', 'V')\",OTHERS,True\nmp-1209336,\"{'Pr': 8.0, 'Sn': 12.0}\",\"('Pr', 'Sn')\",OTHERS,True\nmp-1106064,\"{'Ho': 4.0, 'Ga': 12.0, 'Ni': 1.0}\",\"('Ga', 'Ho', 'Ni')\",OTHERS,True\nmp-559557,\"{'Cs': 4.0, 'Na': 4.0, 'B': 20.0, 'O': 34.0}\",\"('B', 'Cs', 'Na', 'O')\",OTHERS,True\nmp-1227976,\"{'Ba': 6.0, 'Br': 2.0, 'N': 3.0, 'Cl': 1.0}\",\"('Ba', 'Br', 'Cl', 'N')\",OTHERS,True\nmp-569472,\"{'Gd': 4.0, 'Al': 18.0, 'Ir': 6.0}\",\"('Al', 'Gd', 'Ir')\",OTHERS,True\nmp-22383,\"{'Si': 2.0, 'Co': 2.0, 'Pu': 1.0}\",\"('Co', 'Pu', 'Si')\",OTHERS,True\nmp-541312,\"{'Ge': 3.0, 'Te': 6.0, 'As': 2.0}\",\"('As', 'Ge', 'Te')\",OTHERS,True\nmp-56,{'Ba': 2.0},\"('Ba',)\",OTHERS,True\nmp-759124,\"{'Li': 6.0, 'Co': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'Si')\",OTHERS,True\nmp-1204519,\"{'Al': 8.0, 'P': 4.0, 'O': 32.0}\",\"('Al', 'O', 'P')\",OTHERS,True\nmp-1176039,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1111297,\"{'K': 3.0, 'Y': 1.0, 'F': 6.0}\",\"('F', 'K', 'Y')\",OTHERS,True\nmp-14704,\"{'Li': 24.0, 'B': 12.0, 'O': 36.0, 'Y': 4.0}\",\"('B', 'Li', 'O', 'Y')\",OTHERS,True\nmp-738615,\"{'Hg': 4.0, 'H': 12.0, 'C': 4.0, 'S': 4.0, 'O': 12.0}\",\"('C', 'H', 'Hg', 'O', 'S')\",OTHERS,True\nmp-771303,\"{'Li': 4.0, 'Mn': 4.0, 'B': 8.0, 'O': 20.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-775861,\"{'Zr': 16.0, 'N': 16.0, 'O': 8.0}\",\"('N', 'O', 'Zr')\",OTHERS,True\nmp-758129,\"{'Li': 4.0, 'Mn': 2.0, 'Cr': 3.0, 'Co': 3.0, 'O': 16.0}\",\"('Co', 'Cr', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1003322,\"{'Ca': 2.0, 'Mn': 2.0, 'O': 4.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,True\nmp-1203536,\"{'Ho': 20.0, 'Co': 24.0, 'Sn': 72.0}\",\"('Co', 'Ho', 'Sn')\",OTHERS,True\nmp-558301,\"{'Si': 16.0, 'O': 32.0}\",\"('O', 'Si')\",OTHERS,True\nmvc-14231,\"{'Ca': 2.0, 'Fe': 2.0, 'F': 8.0}\",\"('Ca', 'F', 'Fe')\",OTHERS,True\nmp-2294,\"{'Al': 6.0, 'Ir': 2.0}\",\"('Al', 'Ir')\",OTHERS,True\nmp-776437,\"{'La': 4.0, 'Ta': 8.0, 'N': 4.0, 'O': 20.0}\",\"('La', 'N', 'O', 'Ta')\",OTHERS,True\nmp-1191365,\"{'Gd': 8.0, 'P': 8.0, 'S': 8.0}\",\"('Gd', 'P', 'S')\",OTHERS,True\nmp-758077,\"{'Li': 2.0, 'Fe': 16.0, 'O': 24.0}\",\"('Fe', 'Li', 'O')\",OTHERS,True\nmp-979940,\"{'Yb': 3.0, 'Zr': 1.0}\",\"('Yb', 'Zr')\",OTHERS,True\nmp-2124,\"{'Sb': 6.0, 'Ho': 8.0}\",\"('Ho', 'Sb')\",OTHERS,True\nmp-556155,\"{'Zn': 20.0, 'S': 20.0}\",\"('S', 'Zn')\",OTHERS,True\nmp-779108,\"{'Be': 16.0, 'P': 16.0, 'O': 56.0}\",\"('Be', 'O', 'P')\",OTHERS,True\nmp-753503,\"{'Li': 2.0, 'Mn': 4.0, 'F': 14.0}\",\"('F', 'Li', 'Mn')\",OTHERS,True\nmp-559417,\"{'La': 2.0, 'B': 4.0, 'Cl': 2.0, 'O': 8.0}\",\"('B', 'Cl', 'La', 'O')\",OTHERS,True\nmp-680400,\"{'K': 12.0, 'Ta': 8.0, 'S': 44.0}\",\"('K', 'S', 'Ta')\",OTHERS,True\nmp-1227917,\"{'Ba': 1.0, 'La': 2.0, 'Fe': 2.0, 'O': 7.0}\",\"('Ba', 'Fe', 'La', 'O')\",OTHERS,True\nmp-1077112,\"{'Eu': 2.0, 'Zn': 2.0, 'Ge': 2.0}\",\"('Eu', 'Ge', 'Zn')\",OTHERS,True\nmp-1073061,\"{'Mg': 8.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-752643,\"{'Na': 2.0, 'Ti': 4.0, 'O': 8.0}\",\"('Na', 'O', 'Ti')\",OTHERS,True\nmvc-11563,\"{'Ca': 2.0, 'V': 4.0, 'O': 8.0}\",\"('Ca', 'O', 'V')\",OTHERS,True\nmp-1220094,\"{'Nd': 1.0, 'Sm': 1.0, 'Fe': 17.0, 'N': 3.0}\",\"('Fe', 'N', 'Nd', 'Sm')\",OTHERS,True\nmp-1100344,\"{'Ca': 8.0, 'Sn': 8.0, 'S': 24.0}\",\"('Ca', 'S', 'Sn')\",OTHERS,True\nmp-1184208,\"{'Er': 1.0, 'Tl': 1.0, 'Rh': 2.0}\",\"('Er', 'Rh', 'Tl')\",OTHERS,True\nmp-1246527,\"{'Mn': 4.0, 'S': 3.0, 'N': 2.0}\",\"('Mn', 'N', 'S')\",OTHERS,True\nmp-540915,\"{'Eu': 6.0, 'O': 8.0, 'Br': 2.0}\",\"('Br', 'Eu', 'O')\",OTHERS,True\nmp-560563,\"{'K': 6.0, 'Pd': 4.0, 'O': 8.0}\",\"('K', 'O', 'Pd')\",OTHERS,True\nmp-558250,\"{'Mo': 4.0, 'H': 8.0, 'C': 8.0, 'O': 16.0}\",\"('C', 'H', 'Mo', 'O')\",OTHERS,True\nmp-1100166,\"{'Y': 1.0, 'Mg': 3.0}\",\"('Mg', 'Y')\",OTHERS,True\nmp-1198990,\"{'Na': 8.0, 'Pr': 4.0, 'Ge': 4.0, 'O': 20.0}\",\"('Ge', 'Na', 'O', 'Pr')\",OTHERS,True\nmp-780171,\"{'Hg': 4.0, 'H': 40.0, 'N': 8.0, 'Cl': 16.0, 'O': 4.0}\",\"('Cl', 'H', 'Hg', 'N', 'O')\",OTHERS,True\nmp-23443,\"{'Mn': 4.0, 'I': 12.0, 'Tl': 4.0}\",\"('I', 'Mn', 'Tl')\",OTHERS,True\nmp-1223876,\"{'K': 2.0, 'Th': 1.0, 'F': 6.0}\",\"('F', 'K', 'Th')\",OTHERS,True\nmp-1209305,\"{'Rb': 3.0, 'Yb': 1.0, 'P': 2.0, 'O': 8.0}\",\"('O', 'P', 'Rb', 'Yb')\",OTHERS,True\nmp-768754,\"{'Li': 4.0, 'Bi': 8.0, 'S': 12.0, 'O': 48.0}\",\"('Bi', 'Li', 'O', 'S')\",OTHERS,True\nmp-680674,\"{'Cs': 6.0, 'Bi': 4.0, 'Br': 18.0}\",\"('Bi', 'Br', 'Cs')\",OTHERS,True\nmp-1246838,\"{'V': 4.0, 'Co': 6.0, 'N': 8.0}\",\"('Co', 'N', 'V')\",OTHERS,True\nmp-1100156,\"{'Rb': 1.0, 'Mg': 6.0, 'Sb': 1.0}\",\"('Mg', 'Rb', 'Sb')\",OTHERS,True\nmp-1247033,\"{'Mg': 2.0, 'Ti': 3.0, 'Ga': 1.0, 'S': 8.0}\",\"('Ga', 'Mg', 'S', 'Ti')\",OTHERS,True\nmp-1218551,\"{'Sr': 3.0, 'Y': 2.0, 'Fe': 1.0, 'Cu': 3.0, 'Bi': 1.0, 'O': 12.0}\",\"('Bi', 'Cu', 'Fe', 'O', 'Sr', 'Y')\",OTHERS,True\nmp-1216284,\"{'V': 1.0, 'Re': 1.0, 'O': 4.0}\",\"('O', 'Re', 'V')\",OTHERS,True\nmvc-13322,\"{'Sr': 4.0, 'Y': 4.0, 'Mn': 4.0, 'O': 14.0}\",\"('Mn', 'O', 'Sr', 'Y')\",OTHERS,True\nmp-17770,\"{'O': 24.0, 'P': 8.0, 'Cs': 2.0, 'Pr': 2.0}\",\"('Cs', 'O', 'P', 'Pr')\",OTHERS,True\nmp-17542,\"{'O': 24.0, 'P': 4.0, 'Mo': 4.0, 'Tl': 4.0}\",\"('Mo', 'O', 'P', 'Tl')\",OTHERS,True\nmp-1217298,\"{'Th': 5.0, 'C': 1.0}\",\"('C', 'Th')\",OTHERS,True\nmp-1001917,\"{'Ho': 1.0, 'As': 1.0}\",\"('As', 'Ho')\",OTHERS,True\nmp-849665,\"{'Mn': 12.0, 'O': 4.0, 'F': 32.0}\",\"('F', 'Mn', 'O')\",OTHERS,True\nmp-651688,\"{'Si': 8.0, 'Ag': 20.0, 'O': 26.0}\",\"('Ag', 'O', 'Si')\",OTHERS,True\nmp-1214757,\"{'Ba': 2.0, 'Ca': 1.0, 'Sm': 2.0, 'Ti': 3.0, 'Cu': 2.0, 'O': 14.0}\",\"('Ba', 'Ca', 'Cu', 'O', 'Sm', 'Ti')\",OTHERS,True\nmp-640051,\"{'Pu': 4.0, 'Ni': 4.0, 'Sn': 2.0}\",\"('Ni', 'Pu', 'Sn')\",OTHERS,True\nmp-760107,\"{'V': 28.0, 'O': 24.0, 'F': 36.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmp-1245615,\"{'Nb': 2.0, 'Te': 2.0, 'N': 2.0}\",\"('N', 'Nb', 'Te')\",OTHERS,True\nmp-1101620,\"{'Dy': 6.0, 'Nb': 2.0, 'O': 14.0}\",\"('Dy', 'Nb', 'O')\",OTHERS,True\nmp-1190414,\"{'Yb': 7.0, 'In': 1.0, 'Ni': 4.0, 'Ge': 12.0}\",\"('Ge', 'In', 'Ni', 'Yb')\",OTHERS,True\nmp-1174208,\"{'Li': 6.0, 'Mn': 2.0, 'Co': 2.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1245525,\"{'Ge': 4.0, 'Pb': 4.0, 'N': 8.0}\",\"('Ge', 'N', 'Pb')\",OTHERS,True\nmp-546142,\"{'O': 4.0, 'U': 1.0, 'Na': 2.0}\",\"('Na', 'O', 'U')\",OTHERS,True\nmp-27837,\"{'Na': 1.0, 'H': 1.0, 'F': 2.0}\",\"('F', 'H', 'Na')\",OTHERS,True\nmp-760093,\"{'Li': 2.0, 'Ti': 16.0, 'O': 32.0}\",\"('Li', 'O', 'Ti')\",OTHERS,True\nmp-1223957,\"{'K': 4.0, 'Mg': 1.0, 'Cu': 3.0, 'F': 12.0}\",\"('Cu', 'F', 'K', 'Mg')\",OTHERS,True\nmp-1186167,\"{'Na': 1.0, 'Si': 1.0, 'O': 3.0}\",\"('Na', 'O', 'Si')\",OTHERS,True\nmp-777800,\"{'Fe': 4.0, 'O': 6.0, 'F': 2.0}\",\"('F', 'Fe', 'O')\",OTHERS,True\nmp-1096592,\"{'Hf': 2.0, 'Zn': 1.0, 'Fe': 1.0}\",\"('Fe', 'Hf', 'Zn')\",OTHERS,True\nmp-795607,\"{'V': 8.0, 'N': 16.0, 'O': 44.0}\",\"('N', 'O', 'V')\",OTHERS,True\nmp-1204701,\"{'Cd': 4.0, 'N': 8.0, 'O': 24.0}\",\"('Cd', 'N', 'O')\",OTHERS,True\nmp-675199,\"{'Na': 2.0, 'Pr': 2.0, 'S': 4.0}\",\"('Na', 'Pr', 'S')\",OTHERS,True\nmp-552191,\"{'O': 6.0, 'Ba': 2.0, 'Tb': 1.0, 'Bi': 1.0}\",\"('Ba', 'Bi', 'O', 'Tb')\",OTHERS,True\nmp-615444,\"{'Cr': 2.0, 'P': 2.0, 'C': 10.0, 'Br': 6.0, 'O': 10.0}\",\"('Br', 'C', 'Cr', 'O', 'P')\",OTHERS,True\nmp-753155,\"{'Fe': 8.0, 'O': 14.0, 'F': 2.0}\",\"('F', 'Fe', 'O')\",OTHERS,True\nmp-1183521,\"{'Ca': 12.0, 'Si': 4.0, 'O': 4.0}\",\"('Ca', 'O', 'Si')\",OTHERS,True\nmp-754905,\"{'Ni': 6.0, 'O': 2.0, 'F': 10.0}\",\"('F', 'Ni', 'O')\",OTHERS,True\nmp-759157,\"{'V': 6.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmp-674976,\"{'Zr': 9.0, 'Sc': 1.0, 'O': 20.0}\",\"('O', 'Sc', 'Zr')\",OTHERS,True\nmp-1030461,\"{'Te': 4.0, 'Mo': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Te')\",OTHERS,True\nmp-10533,\"{'S': 8.0, 'Cu': 4.0, 'Y': 4.0}\",\"('Cu', 'S', 'Y')\",OTHERS,True\nmp-640315,\"{'Y': 2.0, 'Zn': 40.0, 'Ru': 4.0}\",\"('Ru', 'Y', 'Zn')\",OTHERS,True\nmp-976378,\"{'La': 6.0, 'Sn': 8.0}\",\"('La', 'Sn')\",OTHERS,True\nmp-14652,\"{'P': 6.0, 'Cs': 4.0}\",\"('Cs', 'P')\",OTHERS,True\nmp-1019055,\"{'Re': 2.0, 'N': 4.0}\",\"('N', 'Re')\",OTHERS,True\nmp-1079174,\"{'Pu': 4.0, 'Pd': 4.0}\",\"('Pd', 'Pu')\",OTHERS,True\nmp-764759,\"{'Li': 6.0, 'Mn': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,True\nmp-1208624,\"{'Sr': 1.0, 'P': 4.0, 'N': 2.0, 'O': 12.0}\",\"('N', 'O', 'P', 'Sr')\",OTHERS,True\nmp-1224902,\"{'Gd': 2.0, 'Er': 2.0, 'Al': 12.0}\",\"('Al', 'Er', 'Gd')\",OTHERS,True\nmp-1194897,\"{'Na': 8.0, 'Lu': 4.0, 'C': 8.0, 'O': 24.0, 'F': 4.0}\",\"('C', 'F', 'Lu', 'Na', 'O')\",OTHERS,True\nmp-1174322,\"{'Li': 8.0, 'Mn': 6.0, 'O': 14.0}\",\"('Li', 'Mn', 'O')\",OTHERS,True\nmp-1104360,\"{'Er': 3.0, 'Ga': 8.0, 'Ir': 3.0}\",\"('Er', 'Ga', 'Ir')\",OTHERS,True\nmp-1222773,\"{'Li': 2.0, 'Fe': 1.0, 'P': 2.0, 'S': 6.0}\",\"('Fe', 'Li', 'P', 'S')\",OTHERS,True\nmp-1209861,\"{'Nd': 6.0, 'Hf': 2.0, 'Sb': 10.0}\",\"('Hf', 'Nd', 'Sb')\",OTHERS,True\nmp-1218687,\"{'Sr': 4.0, 'La': 1.0, 'Co': 5.0, 'O': 15.0}\",\"('Co', 'La', 'O', 'Sr')\",OTHERS,True\nmp-1245701,\"{'Fe': 2.0, 'Ge': 14.0, 'N': 20.0}\",\"('Fe', 'Ge', 'N')\",OTHERS,True\nmp-981390,\"{'Hg': 1.0, 'Bi': 3.0}\",\"('Bi', 'Hg')\",OTHERS,True\nmp-1210236,\"{'Nd': 2.0, 'Fe': 21.0, 'B': 6.0}\",\"('B', 'Fe', 'Nd')\",OTHERS,True\nmp-17926,\"{'Ni': 6.0, 'Zr': 6.0, 'Sb': 8.0}\",\"('Ni', 'Sb', 'Zr')\",OTHERS,True\nmp-559476,\"{'Dy': 4.0, 'I': 12.0, 'O': 36.0}\",\"('Dy', 'I', 'O')\",OTHERS,True\nmp-768941,\"{'Sr': 6.0, 'Te': 2.0, 'O': 12.0}\",\"('O', 'Sr', 'Te')\",OTHERS,True\nmp-504908,\"{'In': 6.0, 'Te': 3.0, 'O': 18.0}\",\"('In', 'O', 'Te')\",OTHERS,True\nmp-1114094,\"{'Rb': 2.0, 'In': 1.0, 'Ag': 1.0, 'F': 6.0}\",\"('Ag', 'F', 'In', 'Rb')\",OTHERS,True\nmp-998911,\"{'Tm': 2.0, 'Ge': 2.0}\",\"('Ge', 'Tm')\",OTHERS,True\nmp-1076202,\"{'Sr': 28.0, 'Ca': 4.0, 'Ti': 20.0, 'Mn': 12.0, 'O': 80.0}\",\"('Ca', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,True\nmp-1213341,\"{'Gd': 14.0, 'Br': 6.0, 'O': 36.0}\",\"('Br', 'Gd', 'O')\",OTHERS,True\nmp-7131,\"{'Te': 1.0, 'Pr': 1.0}\",\"('Pr', 'Te')\",OTHERS,True\nmp-1185293,\"{'Li': 1.0, 'Ac': 2.0, 'Tl': 1.0}\",\"('Ac', 'Li', 'Tl')\",OTHERS,True\nmp-1201128,\"{'Na': 4.0, 'Ni': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Na', 'Ni', 'O', 'P')\",OTHERS,True\nmp-1027492,\"{'Mo': 4.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se')\",OTHERS,True\nmp-17578,\"{'Ge': 6.0, 'Yb': 4.0, 'Ir': 7.0}\",\"('Ge', 'Ir', 'Yb')\",OTHERS,True\nmp-1217419,\"{'Tc': 3.0, 'Mo': 1.0}\",\"('Mo', 'Tc')\",OTHERS,True\nmvc-16583,\"{'Mg': 2.0, 'Cr': 2.0, 'F': 8.0}\",\"('Cr', 'F', 'Mg')\",OTHERS,True\nmp-557498,\"{'Na': 4.0, 'Bi': 8.0, 'Au': 4.0, 'O': 20.0}\",\"('Au', 'Bi', 'Na', 'O')\",OTHERS,True\nmp-1221047,\"{'Na': 1.0, 'Er': 1.0, 'Mo': 2.0, 'O': 8.0}\",\"('Er', 'Mo', 'Na', 'O')\",OTHERS,True\nmp-1228324,\"{'Ba': 12.0, 'Na': 8.0, 'Sb': 16.0}\",\"('Ba', 'Na', 'Sb')\",OTHERS,True\nmp-753321,\"{'Li': 2.0, 'Fe': 2.0, 'P': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,True\nmp-1093982,\"{'Ti': 1.0, 'Cd': 1.0, 'Pd': 2.0}\",\"('Cd', 'Pd', 'Ti')\",OTHERS,True\nmp-760983,\"{'Li': 10.0, 'V': 5.0, 'Cr': 3.0, 'O': 16.0}\",\"('Cr', 'Li', 'O', 'V')\",OTHERS,True\nmp-775157,\"{'Li': 12.0, 'Mn': 2.0, 'V': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,True\nmp-9442,\"{'Si': 6.0, 'Fe': 4.0, 'Dy': 6.0}\",\"('Dy', 'Fe', 'Si')\",OTHERS,True\nmp-1203729,\"{'Ba': 2.0, 'Cu': 1.0, 'C': 12.0, 'O': 18.0}\",\"('Ba', 'C', 'Cu', 'O')\",OTHERS,True\nmp-1208576,\"{'Ta': 4.0, 'Co': 4.0, 'As': 4.0}\",\"('As', 'Co', 'Ta')\",OTHERS,True\nmp-849278,\"{'Fe': 1.0, 'Ni': 3.0, 'Sn': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Ni', 'O', 'P', 'Sn')\",OTHERS,True\nmp-1199794,\"{'Tm': 20.0, 'In': 40.0, 'Ni': 18.0}\",\"('In', 'Ni', 'Tm')\",OTHERS,True\nmp-772660,\"{'Nb': 4.0, 'Cr': 4.0, 'O': 16.0}\",\"('Cr', 'Nb', 'O')\",OTHERS,True\nmp-752401,\"{'Rb': 4.0, 'Zr': 2.0, 'O': 6.0}\",\"('O', 'Rb', 'Zr')\",OTHERS,True\nmp-776544,\"{'Li': 4.0, 'Fe': 8.0, 'O': 4.0, 'F': 20.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-1221673,\"{'Mn': 2.0, 'Cr': 2.0, 'P': 4.0}\",\"('Cr', 'Mn', 'P')\",OTHERS,True\nmp-11201,\"{'Sc': 6.0, 'Fe': 1.0, 'Sb': 2.0}\",\"('Fe', 'Sb', 'Sc')\",OTHERS,True\nmp-1183066,\"{'Ac': 2.0, 'Zn': 1.0, 'Au': 1.0}\",\"('Ac', 'Au', 'Zn')\",OTHERS,True\nmp-763588,\"{'Li': 2.0, 'Fe': 2.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-27441,\"{'O': 22.0, 'Se': 8.0, 'Au': 4.0}\",\"('Au', 'O', 'Se')\",OTHERS,True\nmp-28085,\"{'F': 28.0, 'K': 4.0, 'As': 8.0}\",\"('As', 'F', 'K')\",OTHERS,True\nmp-1176394,\"{'Na': 8.0, 'Mn': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Mn', 'Na', 'O', 'P')\",OTHERS,True\nmp-4051,\"{'O': 8.0, 'Al': 2.0, 'P': 2.0}\",\"('Al', 'O', 'P')\",OTHERS,True\nmp-1099978,\"{'La': 24.0, 'Sm': 8.0, 'Cr': 20.0, 'Fe': 12.0, 'O': 80.0}\",\"('Cr', 'Fe', 'La', 'O', 'Sm')\",OTHERS,True\nmp-1210094,\"{'Na': 1.0, 'As': 4.0, 'I': 1.0, 'O': 6.0}\",\"('As', 'I', 'Na', 'O')\",OTHERS,True\nmp-1220949,\"{'Na': 14.0, 'Fe': 8.0, 'P': 18.0, 'O': 64.0}\",\"('Fe', 'Na', 'O', 'P')\",OTHERS,True\nmp-18162,\"{'Li': 4.0, 'O': 8.0, 'Cu': 8.0}\",\"('Cu', 'Li', 'O')\",OTHERS,True\nmp-759605,\"{'Li': 4.0, 'Fe': 2.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-1223118,\"{'La': 4.0, 'Nb': 1.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'La', 'Nb', 'O')\",OTHERS,True\nmp-1196614,\"{'Cs': 8.0, 'Tl': 4.0, 'Cl': 20.0, 'O': 4.0}\",\"('Cl', 'Cs', 'O', 'Tl')\",OTHERS,True\nmp-758595,\"{'Li': 8.0, 'Cr': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,True\nmp-1097274,\"{'K': 2.0, 'Rb': 1.0, 'As': 1.0}\",\"('As', 'K', 'Rb')\",OTHERS,True\nmp-1197565,\"{'Ce': 2.0, 'Cd': 40.0, 'Pd': 4.0}\",\"('Cd', 'Ce', 'Pd')\",OTHERS,True\nmp-1095993,\"{'Zr': 1.0, 'In': 1.0, 'Ag': 2.0}\",\"('Ag', 'In', 'Zr')\",OTHERS,True\nmp-1247445,\"{'Mg': 2.0, 'In': 1.0, 'N': 2.0}\",\"('In', 'Mg', 'N')\",OTHERS,True\nmvc-2250,\"{'Y': 1.0, 'Cu': 3.0, 'Ni': 4.0, 'O': 12.0}\",\"('Cu', 'Ni', 'O', 'Y')\",OTHERS,True\nmp-8850,\"{'S': 12.0, 'Dy': 8.0}\",\"('Dy', 'S')\",OTHERS,True\nmp-29136,\"{'N': 10.0, 'Cu': 6.0, 'Sr': 12.0}\",\"('Cu', 'N', 'Sr')\",OTHERS,True\nmp-1220559,\"{'Nb': 4.0, 'H': 3.0, 'S': 8.0}\",\"('H', 'Nb', 'S')\",OTHERS,True\nmp-681,\"{'Zn': 4.0, 'Eu': 2.0}\",\"('Eu', 'Zn')\",OTHERS,True\nmp-568036,\"{'La': 8.0, 'Ga': 4.0, 'N': 12.0}\",\"('Ga', 'La', 'N')\",OTHERS,True\nmp-1209055,\"{'Sb': 1.0, 'Br': 6.0, 'N': 2.0}\",\"('Br', 'N', 'Sb')\",OTHERS,True\nmp-867896,\"{'Sc': 1.0, 'Zn': 1.0, 'Cu': 2.0}\",\"('Cu', 'Sc', 'Zn')\",OTHERS,True\nmp-1196269,\"{'In': 4.0, 'Re': 8.0, 'C': 36.0, 'O': 36.0}\",\"('C', 'In', 'O', 'Re')\",OTHERS,True\nmp-1245099,\"{'Co': 30.0, 'O': 60.0}\",\"('Co', 'O')\",OTHERS,True\nmp-20491,\"{'Cu': 2.0, 'In': 1.0, 'La': 1.0}\",\"('Cu', 'In', 'La')\",OTHERS,True\nmp-1198754,\"{'Zn': 4.0, 'Sn': 4.0, 'P': 56.0}\",\"('P', 'Sn', 'Zn')\",OTHERS,True\nmp-1197223,\"{'Na': 4.0, 'Zn': 1.0, 'P': 4.0, 'H': 16.0, 'C': 2.0, 'N': 2.0, 'O': 16.0}\",\"('C', 'H', 'N', 'Na', 'O', 'P', 'Zn')\",OTHERS,True\nmp-38994,\"{'Na': 1.0, 'Al': 1.0, 'Si': 4.0}\",\"('Al', 'Na', 'Si')\",OTHERS,True\nmp-1037599,\"{'K': 1.0, 'Mg': 30.0, 'Fe': 1.0, 'O': 32.0}\",\"('Fe', 'K', 'Mg', 'O')\",OTHERS,True\nmp-25829,\"{'Li': 2.0, 'Mn': 4.0, 'P': 6.0, 'O': 22.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,True\nmp-1079449,\"{'Nd': 2.0, 'Si': 4.0, 'Ir': 4.0}\",\"('Ir', 'Nd', 'Si')\",OTHERS,True\nmp-1225580,\"{'La': 1.0, 'Ce': 1.0, 'Cu': 4.0, 'Si': 4.0}\",\"('Ce', 'Cu', 'La', 'Si')\",OTHERS,True\nmp-1182301,\"{'Co': 12.0, 'B': 28.0, 'I': 4.0, 'O': 52.0}\",\"('B', 'Co', 'I', 'O')\",OTHERS,True\nmp-1199982,\"{'Rb': 8.0, 'U': 4.0, 'Se': 8.0, 'O': 48.0}\",\"('O', 'Rb', 'Se', 'U')\",OTHERS,True\nmp-1027663,\"{'Te': 4.0, 'Mo': 3.0, 'W': 1.0, 'Se': 4.0}\",\"('Mo', 'Se', 'Te', 'W')\",OTHERS,True\nmp-19987,\"{'Pa': 6.0, 'Sb': 8.0}\",\"('Pa', 'Sb')\",OTHERS,True\nmp-626014,\"{'H': 20.0, 'I': 4.0, 'O': 24.0}\",\"('H', 'I', 'O')\",OTHERS,True\nmp-580354,\"{'Ce': 6.0, 'Ni': 18.0}\",\"('Ce', 'Ni')\",OTHERS,True\nmp-974395,\"{'Pt': 3.0, 'Rh': 1.0}\",\"('Pt', 'Rh')\",OTHERS,True\nmp-21320,\"{'Ni': 3.0, 'Ga': 3.0, 'U': 3.0}\",\"('Ga', 'Ni', 'U')\",OTHERS,True\nmp-941,\"{'Ni': 30.0, 'As': 12.0}\",\"('As', 'Ni')\",OTHERS,True\nmp-504457,\"{'Ba': 2.0, 'Ti': 12.0, 'O': 26.0}\",\"('Ba', 'O', 'Ti')\",OTHERS,True\nmp-19479,\"{'O': 32.0, 'Na': 10.0, 'Mo': 8.0, 'La': 2.0}\",\"('La', 'Mo', 'Na', 'O')\",OTHERS,True\nmp-1097603,\"{'Ba': 2.0, 'Mg': 1.0, 'Zn': 1.0}\",\"('Ba', 'Mg', 'Zn')\",OTHERS,True\nmp-1176477,\"{'Mn': 4.0, 'O': 6.0, 'F': 2.0}\",\"('F', 'Mn', 'O')\",OTHERS,True\nmp-1187143,\"{'Sr': 1.0, 'Be': 1.0, 'O': 3.0}\",\"('Be', 'O', 'Sr')\",OTHERS,True\nmp-20874,\"{'B': 6.0, 'Eu': 1.0}\",\"('B', 'Eu')\",OTHERS,True\nmp-623836,\"{'Th': 8.0, 'Ni': 8.0}\",\"('Ni', 'Th')\",OTHERS,True\nmp-27192,\"{'Cs': 4.0, 'Be': 8.0, 'F': 20.0}\",\"('Be', 'Cs', 'F')\",OTHERS,True\nmp-1245215,\"{'Al': 36.0, 'O': 18.0}\",\"('Al', 'O')\",OTHERS,True\nmp-1226501,\"{'Ce': 1.0, 'Sc': 1.0, 'Pd': 6.0}\",\"('Ce', 'Pd', 'Sc')\",OTHERS,True\nmp-568190,\"{'La': 16.0, 'C': 16.0, 'Cl': 10.0}\",\"('C', 'Cl', 'La')\",OTHERS,True\nmp-631254,\"{'K': 1.0, 'Mn': 1.0, 'Ru': 1.0}\",\"('K', 'Mn', 'Ru')\",OTHERS,True\nmp-1187796,\"{'U': 4.0, 'B': 16.0, 'Mo': 4.0}\",\"('B', 'Mo', 'U')\",OTHERS,True\nmp-695772,\"{'Mo': 2.0, 'P': 8.0, 'O': 24.0}\",\"('Mo', 'O', 'P')\",OTHERS,True\nmp-29305,\"{'O': 24.0, 'Re': 6.0, 'Pb': 3.0}\",\"('O', 'Pb', 'Re')\",OTHERS,True\nmp-1244872,\"{'B': 50.0, 'N': 50.0}\",\"('B', 'N')\",OTHERS,True\nmp-774573,\"{'Li': 4.0, 'Mn': 4.0, 'Ni': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'Mn', 'Ni', 'O', 'P')\",OTHERS,True\nmp-1074562,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-1207270,\"{'Tl': 2.0, 'Cu': 1.0, 'Te': 2.0}\",\"('Cu', 'Te', 'Tl')\",OTHERS,True\nmp-629560,\"{'Fe': 6.0, 'C': 18.0, 'Se': 4.0, 'O': 18.0}\",\"('C', 'Fe', 'O', 'Se')\",OTHERS,True\nmp-649470,\"{'K': 12.0, 'Nd': 8.0, 'N': 36.0, 'O': 108.0}\",\"('K', 'N', 'Nd', 'O')\",OTHERS,True\nmvc-680,\"{'Y': 2.0, 'Ni': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Ni', 'O', 'W', 'Y')\",OTHERS,True\nmp-2400,\"{'Na': 4.0, 'S': 4.0}\",\"('Na', 'S')\",OTHERS,True\nmp-1097288,\"{'Sc': 2.0, 'Pt': 1.0, 'Rh': 1.0}\",\"('Pt', 'Rh', 'Sc')\",OTHERS,True\nmp-20692,\"{'N': 8.0, 'Mn': 4.0, 'Ge': 4.0}\",\"('Ge', 'Mn', 'N')\",OTHERS,True\nmp-1177526,\"{'Li': 6.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-772822,\"{'Li': 3.0, 'Cu': 3.0, 'Te': 1.0, 'O': 8.0}\",\"('Cu', 'Li', 'O', 'Te')\",OTHERS,True\nmp-738670,\"{'H': 40.0, 'C': 16.0, 'N': 8.0, 'O': 24.0}\",\"('C', 'H', 'N', 'O')\",OTHERS,True\nmp-1185577,\"{'Cs': 2.0, 'Hg': 6.0}\",\"('Cs', 'Hg')\",OTHERS,True\nmp-866287,\"{'Dy': 1.0, 'Sn': 1.0, 'Au': 2.0}\",\"('Au', 'Dy', 'Sn')\",OTHERS,True\nmp-770495,\"{'Li': 4.0, 'Ti': 2.0, 'Mn': 3.0, 'Fe': 3.0, 'O': 16.0}\",\"('Fe', 'Li', 'Mn', 'O', 'Ti')\",OTHERS,True\nmp-1186561,\"{'Pm': 2.0, 'Cd': 6.0}\",\"('Cd', 'Pm')\",OTHERS,True\nmp-1094981,\"{'Mg': 4.0, 'Bi': 8.0}\",\"('Bi', 'Mg')\",OTHERS,True\nmp-760102,\"{'W': 8.0, 'O': 4.0, 'F': 32.0}\",\"('F', 'O', 'W')\",OTHERS,True\nmp-8869,\"{'O': 4.0, 'S': 8.0, 'Y': 8.0}\",\"('O', 'S', 'Y')\",OTHERS,True\nmp-1226212,\"{'Cr': 1.0, 'Ni': 1.0, 'Sb': 2.0}\",\"('Cr', 'Ni', 'Sb')\",OTHERS,True\nmp-781628,\"{'Li': 7.0, 'Mn': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-974613,\"{'Nd': 1.0, 'P': 3.0}\",\"('Nd', 'P')\",OTHERS,True\nmp-1185501,\"{'Lu': 1.0, 'Mg': 1.0, 'Tl': 2.0}\",\"('Lu', 'Mg', 'Tl')\",OTHERS,True\nmp-971720,\"{'Zn': 1.0, 'Ga': 3.0}\",\"('Ga', 'Zn')\",OTHERS,True\nmp-1204398,\"{'Co': 4.0, 'Mo': 4.0, 'H': 96.0, 'N': 24.0, 'Cl': 4.0, 'O': 28.0}\",\"('Cl', 'Co', 'H', 'Mo', 'N', 'O')\",OTHERS,True\nmp-1226498,\"{'Ce': 1.0, 'Pr': 1.0, 'Al': 4.0}\",\"('Al', 'Ce', 'Pr')\",OTHERS,True\nmp-1106292,\"{'C': 8.0, 'Se': 4.0, 'N': 8.0}\",\"('C', 'N', 'Se')\",OTHERS,True\nmp-753740,\"{'Cr': 1.0, 'O': 3.0}\",\"('Cr', 'O')\",OTHERS,True\nmp-613327,\"{'Fe': 2.0, 'B': 4.0, 'W': 4.0}\",\"('B', 'Fe', 'W')\",OTHERS,True\nmp-11352,\"{'Al': 5.0, 'Ni': 2.0, 'Pr': 1.0}\",\"('Al', 'Ni', 'Pr')\",OTHERS,True\nmp-1195,\"{'P': 28.0, 'Ba': 6.0}\",\"('Ba', 'P')\",OTHERS,True\nmp-759743,\"{'Sb': 20.0, 'O': 28.0, 'F': 4.0}\",\"('F', 'O', 'Sb')\",OTHERS,True\nmp-28024,\"{'Si': 4.0, 'Y': 4.0, 'Pd': 8.0}\",\"('Pd', 'Si', 'Y')\",OTHERS,True\nmp-624929,\"{'Cd': 1.0, 'In': 1.0, 'Ga': 1.0, 'S': 4.0}\",\"('Cd', 'Ga', 'In', 'S')\",OTHERS,True\nmp-1183403,\"{'Be': 1.0, 'Bi': 1.0, 'O': 3.0}\",\"('Be', 'Bi', 'O')\",OTHERS,True\nmp-7046,\"{'S': 2.0, 'Rb': 1.0, 'Dy': 1.0}\",\"('Dy', 'Rb', 'S')\",OTHERS,True\nmp-1030570,\"{'Te': 4.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,True\nmp-697807,\"{'Li': 2.0, 'Mn': 8.0, 'P': 14.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,True\nmp-23983,\"{'H': 8.0, 'O': 14.0, 'P': 2.0, 'V': 2.0, 'Ni': 1.0}\",\"('H', 'Ni', 'O', 'P', 'V')\",OTHERS,True\nmp-567157,\"{'Ba': 14.0, 'Na': 10.0, 'Li': 6.0, 'N': 6.0}\",\"('Ba', 'Li', 'N', 'Na')\",OTHERS,True\nmp-559431,\"{'K': 4.0, 'V': 4.0, 'P': 4.0, 'O': 20.0}\",\"('K', 'O', 'P', 'V')\",OTHERS,True\nmp-1094557,\"{'Mg': 6.0, 'Sb': 6.0}\",\"('Mg', 'Sb')\",OTHERS,True\nmp-755434,\"{'Li': 4.0, 'Mn': 2.0, 'F': 8.0}\",\"('F', 'Li', 'Mn')\",OTHERS,True\nmp-743704,\"{'Ca': 8.0, 'Y': 4.0, 'Al': 14.0, 'Cr': 4.0, 'Si': 2.0, 'O': 48.0}\",\"('Al', 'Ca', 'Cr', 'O', 'Si', 'Y')\",OTHERS,True\nmp-772093,\"{'Li': 2.0, 'Fe': 2.0, 'P': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,True\nmp-17350,\"{'O': 24.0, 'Te': 4.0, 'La': 8.0}\",\"('La', 'O', 'Te')\",OTHERS,True\nmp-1106039,\"{'Sm': 4.0, 'As': 8.0, 'Au': 4.0}\",\"('As', 'Au', 'Sm')\",OTHERS,True\nmp-1226133,\"{'Co': 1.0, 'Mo': 4.0, 'N': 5.0}\",\"('Co', 'Mo', 'N')\",OTHERS,True\nmp-1187097,\"{'Sr': 2.0, 'Pd': 1.0, 'Pt': 1.0}\",\"('Pd', 'Pt', 'Sr')\",OTHERS,True\nmp-1211576,\"{'Nd': 8.0, 'Co': 2.0, 'Si': 8.0, 'C': 8.0, 'O': 44.0}\",\"('C', 'Co', 'Nd', 'O', 'Si')\",OTHERS,True\nmp-762029,\"{'Li': 4.0, 'Ag': 8.0, 'F': 16.0}\",\"('Ag', 'F', 'Li')\",OTHERS,True\nmp-1034331,\"{'Hf': 1.0, 'Mg': 14.0, 'V': 1.0, 'O': 16.0}\",\"('Hf', 'Mg', 'O', 'V')\",OTHERS,True\nmp-722246,\"{'Si': 2.0, 'H': 20.0, 'O': 8.0, 'F': 12.0}\",\"('F', 'H', 'O', 'Si')\",OTHERS,True\nmp-755290,\"{'V': 6.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmp-1205997,\"{'Na': 1.0, 'U': 1.0, 'F': 6.0}\",\"('F', 'Na', 'U')\",OTHERS,True\nmp-1120819,\"{'Na': 8.0, 'Co': 16.0, 'Bi': 8.0, 'O': 48.0}\",\"('Bi', 'Co', 'Na', 'O')\",OTHERS,True\nmp-755473,\"{'Li': 3.0, 'V': 1.0, 'Cr': 3.0, 'O': 8.0}\",\"('Cr', 'Li', 'O', 'V')\",OTHERS,True\nmvc-15452,\"{'Y': 1.0, 'Mo': 1.0, 'O': 3.0}\",\"('Mo', 'O', 'Y')\",OTHERS,True\nmp-571636,\"{'In': 2.0, 'Cl': 2.0}\",\"('Cl', 'In')\",OTHERS,True\nmp-989628,\"{'Y': 4.0, 'Re': 4.0, 'N': 12.0}\",\"('N', 'Re', 'Y')\",OTHERS,True\nmp-1181813,\"{'Fe': 24.0, 'O': 32.0}\",\"('Fe', 'O')\",OTHERS,True\nmp-1177398,\"{'Li': 4.0, 'Mn': 3.0, 'V': 1.0, 'O': 8.0}\",\"('Li', 'Mn', 'O', 'V')\",OTHERS,True\nmp-1247002,\"{'Zr': 2.0, 'Cr': 2.0, 'Ag': 2.0, 'S': 8.0}\",\"('Ag', 'Cr', 'S', 'Zr')\",OTHERS,True\nmp-1093601,\"{'Li': 1.0, 'Ca': 2.0, 'Zn': 1.0}\",\"('Ca', 'Li', 'Zn')\",OTHERS,True\nmp-1212628,\"{'Ho': 12.0, 'Ga': 60.0, 'Ru': 16.0}\",\"('Ga', 'Ho', 'Ru')\",OTHERS,True\nmp-1189414,\"{'Yb': 4.0, 'Si': 12.0}\",\"('Si', 'Yb')\",OTHERS,True\nmp-1096646,\"{'Li': 2.0, 'Y': 1.0, 'Ga': 1.0}\",\"('Ga', 'Li', 'Y')\",OTHERS,True\nmp-1080612,\"{'Gd': 3.0, 'Al': 3.0, 'Cu': 3.0}\",\"('Al', 'Cu', 'Gd')\",OTHERS,True\nmp-5733,\"{'O': 36.0, 'Si': 12.0, 'Ca': 12.0}\",\"('Ca', 'O', 'Si')\",OTHERS,True\nmp-504650,\"{'La': 6.0, 'Cu': 2.0, 'Si': 2.0, 'S': 14.0}\",\"('Cu', 'La', 'S', 'Si')\",OTHERS,True\nmp-542280,\"{'Ca': 2.0, 'P': 12.0, 'Na': 8.0, 'O': 36.0}\",\"('Ca', 'Na', 'O', 'P')\",OTHERS,True\nmp-1181830,\"{'Ca': 4.0, 'C': 8.0, 'O': 16.0}\",\"('C', 'Ca', 'O')\",OTHERS,True\nmp-758336,\"{'Li': 6.0, 'V': 2.0, 'P': 6.0, 'O': 22.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-1183482,\"{'Ca': 2.0, 'Cu': 1.0, 'Rh': 1.0}\",\"('Ca', 'Cu', 'Rh')\",OTHERS,True\nmp-755241,\"{'Mn': 8.0, 'O': 8.0, 'F': 8.0}\",\"('F', 'Mn', 'O')\",OTHERS,True\nmp-1209892,\"{'Nd': 1.0, 'Fe': 4.0, 'As': 12.0}\",\"('As', 'Fe', 'Nd')\",OTHERS,True\nmp-1232437,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1184722,\"{'Ho': 6.0, 'Th': 2.0}\",\"('Ho', 'Th')\",OTHERS,True\nmp-1025066,\"{'Er': 1.0, 'In': 1.0, 'Co': 4.0}\",\"('Co', 'Er', 'In')\",OTHERS,True\nmp-754962,\"{'Mn': 2.0, 'Fe': 1.0, 'O': 6.0}\",\"('Fe', 'Mn', 'O')\",OTHERS,True\nmp-1217477,\"{'Tb': 1.0, 'Pr': 1.0, 'Fe': 4.0}\",\"('Fe', 'Pr', 'Tb')\",OTHERS,True\nmp-26387,\"{'Li': 4.0, 'Ni': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,True\nmp-766091,\"{'Li': 4.0, 'La': 5.0, 'Ti': 6.0, 'Nb': 2.0, 'O': 26.0}\",\"('La', 'Li', 'Nb', 'O', 'Ti')\",OTHERS,True\nmp-632329,{'C': 2.0},\"('C',)\",OTHERS,True\nmp-774775,\"{'Na': 4.0, 'Mn': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Mn', 'Na', 'O', 'P')\",OTHERS,True\nmp-759689,\"{'V': 6.0, 'O': 11.0, 'F': 1.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmp-754103,\"{'Ca': 2.0, 'Ni': 2.0, 'O': 6.0}\",\"('Ca', 'Ni', 'O')\",OTHERS,True\nmp-1177257,\"{'Li': 4.0, 'Ti': 3.0, 'V': 3.0, 'Ni': 2.0, 'O': 16.0}\",\"('Li', 'Ni', 'O', 'Ti', 'V')\",OTHERS,True\nmp-1110640,\"{'K': 2.0, 'In': 1.0, 'As': 1.0, 'Br': 6.0}\",\"('As', 'Br', 'In', 'K')\",OTHERS,True\nmp-510057,\"{'Gd': 12.0, 'Nb': 4.0, 'S': 12.0, 'O': 16.0}\",\"('Gd', 'Nb', 'O', 'S')\",OTHERS,True\nmp-17173,\"{'S': 12.0, 'Rh': 8.0}\",\"('Rh', 'S')\",OTHERS,True\nmvc-10598,\"{'Ba': 4.0, 'Mg': 4.0, 'Co': 4.0, 'F': 28.0}\",\"('Ba', 'Co', 'F', 'Mg')\",OTHERS,True\nmp-974065,\"{'Lu': 1.0, 'Sc': 1.0, 'Pd': 2.0}\",\"('Lu', 'Pd', 'Sc')\",OTHERS,True\nmp-864876,\"{'Tb': 1.0, 'In': 1.0, 'Rh': 2.0}\",\"('In', 'Rh', 'Tb')\",OTHERS,True\nmp-1225861,\"{'Dy': 14.0, 'Au': 51.0}\",\"('Au', 'Dy')\",OTHERS,True\nmp-1094626,\"{'Mg': 10.0, 'Ga': 2.0}\",\"('Ga', 'Mg')\",OTHERS,True\nmp-1205196,\"{'Li': 10.0, 'Ce': 10.0, 'Si': 8.0, 'N': 24.0}\",\"('Ce', 'Li', 'N', 'Si')\",OTHERS,True\nmp-1196242,\"{'Dy': 6.0, 'Al': 4.0, 'Ni': 12.0, 'H': 18.0}\",\"('Al', 'Dy', 'H', 'Ni')\",OTHERS,True\nmp-637600,\"{'Gd': 6.0, 'Co': 1.0, 'Br': 10.0}\",\"('Br', 'Co', 'Gd')\",OTHERS,True\nmp-771717,\"{'Mn': 16.0, 'O': 24.0}\",\"('Mn', 'O')\",OTHERS,True\nmp-1226382,\"{'Cr': 4.0, 'Cd': 2.0, 'Se': 2.0, 'S': 6.0}\",\"('Cd', 'Cr', 'S', 'Se')\",OTHERS,True\nmp-755393,\"{'Sr': 2.0, 'La': 2.0, 'I': 10.0}\",\"('I', 'La', 'Sr')\",OTHERS,True\nmp-1187488,\"{'Ti': 1.0, 'Te': 1.0, 'O': 3.0}\",\"('O', 'Te', 'Ti')\",OTHERS,True\nmp-1099244,\"{'Mg': 3.0, 'W': 1.0, 'O': 4.0}\",\"('Mg', 'O', 'W')\",OTHERS,True\nmp-1246277,\"{'Na': 12.0, 'Re': 2.0, 'N': 8.0}\",\"('N', 'Na', 'Re')\",OTHERS,True\nmp-1245017,\"{'Y': 40.0, 'O': 60.0}\",\"('O', 'Y')\",OTHERS,True\nmp-540806,\"{'Ir': 3.0, 'Ca': 6.0, 'O': 12.0}\",\"('Ca', 'Ir', 'O')\",OTHERS,True\nmp-1214640,\"{'Ba': 6.0, 'Ce': 2.0, 'Ir': 4.0, 'O': 18.0}\",\"('Ba', 'Ce', 'Ir', 'O')\",OTHERS,True\nmp-771957,\"{'Ta': 8.0, 'Pb': 4.0, 'O': 24.0}\",\"('O', 'Pb', 'Ta')\",OTHERS,True\nmp-560268,\"{'K': 4.0, 'Mo': 6.0, 'As': 8.0, 'O': 40.0}\",\"('As', 'K', 'Mo', 'O')\",OTHERS,True\nmp-1094724,\"{'Mg': 3.0, 'Sb': 1.0}\",\"('Mg', 'Sb')\",OTHERS,True\nmvc-5466,\"{'Co': 16.0, 'O': 32.0}\",\"('Co', 'O')\",OTHERS,True\nmp-768579,\"{'Na': 4.0, 'Mn': 2.0, 'B': 2.0, 'P': 2.0, 'O': 14.0}\",\"('B', 'Mn', 'Na', 'O', 'P')\",OTHERS,True\nmp-1205479,\"{'K': 44.0, 'Sb': 22.0, 'F': 110.0}\",\"('F', 'K', 'Sb')\",OTHERS,True\nmp-1214564,\"{'Ba': 8.0, 'Na': 8.0, 'Cr': 8.0, 'F': 48.0}\",\"('Ba', 'Cr', 'F', 'Na')\",OTHERS,True\nmp-777874,\"{'Li': 12.0, 'Mn': 2.0, 'V': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,True\nmp-19155,\"{'Cr': 4.0, 'Hg': 4.0, 'O': 16.0}\",\"('Cr', 'Hg', 'O')\",OTHERS,True\nmp-1094437,\"{'Mg': 8.0, 'Zn': 4.0}\",\"('Mg', 'Zn')\",OTHERS,True\nmp-676260,\"{'Ag': 9.0, 'Te': 4.0, 'Br': 3.0}\",\"('Ag', 'Br', 'Te')\",OTHERS,True\nmp-1025268,\"{'Pu': 2.0, 'W': 2.0, 'C': 3.0}\",\"('C', 'Pu', 'W')\",OTHERS,True\nmp-1102875,\"{'Er': 8.0, 'Al': 4.0}\",\"('Al', 'Er')\",OTHERS,True\nmp-720995,\"{'Sr': 8.0, 'C': 8.0, 'N': 12.0}\",\"('C', 'N', 'Sr')\",OTHERS,True\nmp-1219640,\"{'Rb': 3.0, 'I': 2.0, 'Br': 1.0}\",\"('Br', 'I', 'Rb')\",OTHERS,True\nmp-1079481,\"{'Al': 2.0, 'S': 2.0, 'Br': 6.0}\",\"('Al', 'Br', 'S')\",OTHERS,True\nmp-559134,\"{'Eu': 6.0, 'As': 4.0, 'S': 16.0}\",\"('As', 'Eu', 'S')\",OTHERS,True\nmp-1213307,\"{'Cs': 2.0, 'Nd': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Cs', 'Mo', 'Nd', 'O')\",OTHERS,True\nmp-1205613,\"{'Rb': 3.0, 'Sm': 1.0, 'F': 6.0}\",\"('F', 'Rb', 'Sm')\",OTHERS,True\nmp-11666,\"{'Zn': 6.0, 'Ge': 3.0, 'Pr': 2.0}\",\"('Ge', 'Pr', 'Zn')\",OTHERS,True\nmp-1199580,\"{'Zn': 2.0, 'Cu': 2.0, 'C': 8.0, 'O': 24.0}\",\"('C', 'Cu', 'O', 'Zn')\",OTHERS,True\nmp-770731,\"{'Li': 4.0, 'Zr': 8.0, 'O': 16.0}\",\"('Li', 'O', 'Zr')\",OTHERS,True\nmp-1106337,\"{'Mn': 4.0, 'Pb': 4.0, 'O': 12.0}\",\"('Mn', 'O', 'Pb')\",OTHERS,True\nmp-1245403,\"{'Pd': 3.0, 'C': 24.0, 'N': 18.0}\",\"('C', 'N', 'Pd')\",OTHERS,True\nmp-1224874,\"{'Gd': 2.0, 'Si': 3.0}\",\"('Gd', 'Si')\",OTHERS,True\nmp-636934,\"{'Bi': 12.0, 'O': 18.0}\",\"('Bi', 'O')\",OTHERS,True\nmp-14643,\"{'Te': 12.0, 'Er': 8.0}\",\"('Er', 'Te')\",OTHERS,True\nmp-562050,\"{'Cs': 6.0, 'Na': 3.0, 'Ti': 3.0, 'F': 18.0}\",\"('Cs', 'F', 'Na', 'Ti')\",OTHERS,True\nmp-1654,\"{'Ni': 4.0, 'Ce': 2.0}\",\"('Ce', 'Ni')\",OTHERS,True\nmp-754085,\"{'Li': 4.0, 'Bi': 2.0, 'S': 4.0}\",\"('Bi', 'Li', 'S')\",OTHERS,True\nmp-1213293,\"{'Cs': 2.0, 'Tb': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Cs', 'Mo', 'O', 'Tb')\",OTHERS,True\nmp-1202486,\"{'La': 28.0, 'Ru': 12.0}\",\"('La', 'Ru')\",OTHERS,True\nmp-1246113,\"{'Cr': 4.0, 'Fe': 6.0, 'N': 8.0}\",\"('Cr', 'Fe', 'N')\",OTHERS,True\nmp-1015582,\"{'Cr': 4.0, 'N': 8.0}\",\"('Cr', 'N')\",OTHERS,True\nmp-1245702,\"{'Ca': 10.0, 'Ir': 4.0, 'N': 12.0}\",\"('Ca', 'Ir', 'N')\",OTHERS,True\nmp-1217895,\"{'Ta': 1.0, 'Mo': 1.0}\",\"('Mo', 'Ta')\",OTHERS,True\nmp-3205,\"{'C': 2.0, 'O': 6.0, 'Ca': 2.0}\",\"('C', 'Ca', 'O')\",OTHERS,True\nmp-974341,\"{'Ru': 2.0, 'Rh': 6.0}\",\"('Rh', 'Ru')\",OTHERS,True\nmp-779357,\"{'V': 6.0, 'O': 2.0, 'F': 22.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmvc-2670,\"{'Ta': 4.0, 'Zn': 4.0, 'Ni': 2.0, 'O': 16.0}\",\"('Ni', 'O', 'Ta', 'Zn')\",OTHERS,True\nmp-569952,\"{'K': 8.0, 'Cu': 4.0, 'Cl': 12.0}\",\"('Cl', 'Cu', 'K')\",OTHERS,True\nmp-1104205,\"{'Ba': 1.0, 'Er': 1.0, 'Fe': 4.0, 'O': 7.0}\",\"('Ba', 'Er', 'Fe', 'O')\",OTHERS,True\nmp-1184577,\"{'Ho': 2.0, 'Os': 1.0, 'Rh': 1.0}\",\"('Ho', 'Os', 'Rh')\",OTHERS,True\nmp-21410,\"{'Fe': 4.0, 'S': 4.0}\",\"('Fe', 'S')\",OTHERS,True\nmp-25813,\"{'Li': 6.0, 'O': 32.0, 'P': 8.0, 'Fe': 6.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,True\nmp-1135,\"{'Nb': 1.0, 'Pd': 3.0}\",\"('Nb', 'Pd')\",OTHERS,True\nmp-780462,\"{'Na': 12.0, 'Mn': 4.0, 'P': 2.0, 'C': 8.0, 'O': 32.0}\",\"('C', 'Mn', 'Na', 'O', 'P')\",OTHERS,True\nmp-1175970,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1203397,\"{'Zr': 4.0, 'Cd': 4.0, 'H': 40.0, 'C': 24.0, 'O': 68.0}\",\"('C', 'Cd', 'H', 'O', 'Zr')\",OTHERS,True\nmp-557661,\"{'Sb': 16.0, 'Pd': 4.0, 'C': 16.0, 'O': 16.0, 'F': 88.0}\",\"('C', 'F', 'O', 'Pd', 'Sb')\",OTHERS,True\nmp-1101545,\"{'Li': 4.0, 'Co': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,True\nmp-555392,\"{'K': 12.0, 'Na': 2.0, 'Au': 4.0, 'I': 2.0, 'O': 16.0}\",\"('Au', 'I', 'K', 'Na', 'O')\",OTHERS,True\nmp-1191428,\"{'Sc': 2.0, 'Co': 12.0, 'P': 7.0}\",\"('Co', 'P', 'Sc')\",OTHERS,True\nmp-1173448,\"{'Re': 12.0, 'Se': 8.0, 'Cl': 20.0}\",\"('Cl', 'Re', 'Se')\",OTHERS,True\nmp-753441,\"{'Li': 4.0, 'Mn': 4.0, 'O': 2.0, 'F': 12.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-15318,\"{'F': 6.0, 'Na': 1.0, 'Rb': 2.0, 'Ho': 1.0}\",\"('F', 'Ho', 'Na', 'Rb')\",OTHERS,True\nmp-567446,\"{'La': 46.0, 'Cd': 8.0, 'Pt': 14.0}\",\"('Cd', 'La', 'Pt')\",OTHERS,True\nmp-1175046,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-985283,\"{'Ag': 3.0, 'Ge': 1.0}\",\"('Ag', 'Ge')\",OTHERS,True\nmp-984726,\"{'Dy': 1.0, 'Al': 8.0, 'Cu': 4.0}\",\"('Al', 'Cu', 'Dy')\",OTHERS,True\nmp-1196275,\"{'Ba': 8.0, 'Fe': 8.0, 'O': 8.0, 'F': 40.0}\",\"('Ba', 'F', 'Fe', 'O')\",OTHERS,True\nmp-1104171,\"{'Yb': 2.0, 'Ga': 4.0, 'Se': 8.0}\",\"('Ga', 'Se', 'Yb')\",OTHERS,True\nmp-15108,\"{'O': 40.0, 'As': 8.0, 'Rb': 8.0, 'Sn': 8.0}\",\"('As', 'O', 'Rb', 'Sn')\",OTHERS,True\nmp-17491,\"{'Li': 4.0, 'Ge': 12.0, 'Ba': 8.0}\",\"('Ba', 'Ge', 'Li')\",OTHERS,True\nmp-1205361,\"{'Te': 12.0, 'Rh': 2.0, 'I': 6.0}\",\"('I', 'Rh', 'Te')\",OTHERS,True\nmp-1178273,\"{'Fe': 10.0, 'O': 4.0, 'F': 16.0}\",\"('F', 'Fe', 'O')\",OTHERS,True\nmvc-12970,\"{'Mg': 2.0, 'Fe': 4.0, 'S': 8.0}\",\"('Fe', 'Mg', 'S')\",OTHERS,True\nmp-865156,\"{'Dy': 2.0, 'Zn': 1.0, 'Ga': 1.0}\",\"('Dy', 'Ga', 'Zn')\",OTHERS,True\nmp-1038168,\"{'Mg': 30.0, 'Mn': 1.0, 'V': 1.0, 'O': 32.0}\",\"('Mg', 'Mn', 'O', 'V')\",OTHERS,True\nmp-20704,\"{'U': 1.0, 'Mn': 4.0, 'Al': 8.0}\",\"('Al', 'Mn', 'U')\",OTHERS,True\nmp-980205,\"{'Y': 4.0, 'B': 16.0, 'Os': 4.0}\",\"('B', 'Os', 'Y')\",OTHERS,True\nmp-4669,\"{'O': 64.0, 'Mo': 16.0, 'Th': 8.0}\",\"('Mo', 'O', 'Th')\",OTHERS,True\nmp-33737,\"{'Mn': 3.0, 'Cu': 3.0, 'O': 8.0}\",\"('Cu', 'Mn', 'O')\",OTHERS,True\nmvc-14333,\"{'V': 2.0, 'Zn': 2.0, 'F': 10.0}\",\"('F', 'V', 'Zn')\",OTHERS,True\nmp-1178743,\"{'Y': 4.0, 'Al': 1.0, 'Si': 2.0, 'O': 10.0, 'F': 5.0}\",\"('Al', 'F', 'O', 'Si', 'Y')\",OTHERS,True\nmp-674804,\"{'Sm': 4.0, 'Pb': 2.0, 'Se': 8.0}\",\"('Pb', 'Se', 'Sm')\",OTHERS,True\nmp-8710,\"{'O': 8.0, 'Ca': 2.0, 'Pt': 3.0}\",\"('Ca', 'O', 'Pt')\",OTHERS,True\nmp-1193652,\"{'Re': 4.0, 'Te': 8.0, 'Cl': 16.0}\",\"('Cl', 'Re', 'Te')\",OTHERS,True\nmp-7138,\"{'Sb': 4.0, 'Yb': 2.0}\",\"('Sb', 'Yb')\",OTHERS,True\nmp-1225677,\"{'Cu': 1.0, 'Au': 1.0}\",\"('Au', 'Cu')\",OTHERS,True\nmvc-867,\"{'Mg': 2.0, 'Co': 6.0, 'P': 8.0, 'O': 28.0}\",\"('Co', 'Mg', 'O', 'P')\",OTHERS,True\nmp-1078956,\"{'Pt': 1.0, 'N': 4.0, 'Cl': 2.0, 'O': 1.0}\",\"('Cl', 'N', 'O', 'Pt')\",OTHERS,True\nmp-1232372,\"{'Sc': 2.0, 'B': 2.0, 'C': 2.0}\",\"('B', 'C', 'Sc')\",OTHERS,True\nmp-18772,\"{'N': 4.0, 'O': 4.0, 'Na': 8.0, 'Mo': 2.0}\",\"('Mo', 'N', 'Na', 'O')\",OTHERS,True\nmp-696878,\"{'K': 3.0, 'Ca': 1.0, 'P': 2.0, 'H': 1.0, 'O': 8.0}\",\"('Ca', 'H', 'K', 'O', 'P')\",OTHERS,True\nmp-3884,\"{'O': 14.0, 'Sn': 4.0, 'Ho': 4.0}\",\"('Ho', 'O', 'Sn')\",OTHERS,True\nmp-764043,\"{'Li': 6.0, 'Mn': 6.0, 'Ni': 2.0, 'O': 16.0}\",\"('Li', 'Mn', 'Ni', 'O')\",OTHERS,True\nmp-1038154,\"{'Mg': 30.0, 'Mn': 1.0, 'Sn': 1.0, 'O': 32.0}\",\"('Mg', 'Mn', 'O', 'Sn')\",OTHERS,True\nmp-1228077,\"{'Ba': 4.0, 'Na': 1.0, 'Ir': 3.0, 'O': 12.0}\",\"('Ba', 'Ir', 'Na', 'O')\",OTHERS,True\nmp-20038,\"{'P': 2.0, 'Co': 2.0, 'Eu': 1.0}\",\"('Co', 'Eu', 'P')\",OTHERS,True\nmp-3890,\"{'Cr': 2.0, 'Fe': 15.0, 'Sm': 2.0}\",\"('Cr', 'Fe', 'Sm')\",OTHERS,True\nmp-1247009,\"{'V': 8.0, 'Fe': 3.0, 'N': 8.0}\",\"('Fe', 'N', 'V')\",OTHERS,True\nmp-542081,\"{'La': 4.0, 'P': 8.0, 'S': 28.0, 'K': 8.0}\",\"('K', 'La', 'P', 'S')\",OTHERS,True\nmp-1039999,\"{'Na': 1.0, 'La': 1.0, 'Mg': 30.0, 'O': 32.0}\",\"('La', 'Mg', 'Na', 'O')\",OTHERS,True\nmp-1185684,\"{'Mg': 16.0, 'Al': 12.0, 'O': 1.0}\",\"('Al', 'Mg', 'O')\",OTHERS,True\nmp-29088,\"{'N': 4.0, 'Ge': 4.0, 'Sr': 6.0}\",\"('Ge', 'N', 'Sr')\",OTHERS,True\nmp-1201569,\"{'Sc': 10.0, 'V': 5.0, 'O': 25.0}\",\"('O', 'Sc', 'V')\",OTHERS,True\nmp-778169,\"{'Li': 2.0, 'Cu': 4.0, 'S': 6.0, 'O': 24.0}\",\"('Cu', 'Li', 'O', 'S')\",OTHERS,True\nmp-1076592,\"{'Ba': 1.0, 'Sr': 7.0, 'Mn': 1.0, 'Fe': 7.0, 'O': 24.0}\",\"('Ba', 'Fe', 'Mn', 'O', 'Sr')\",OTHERS,True\nmp-755993,\"{'Mn': 3.0, 'Nb': 2.0, 'Fe': 3.0, 'O': 16.0}\",\"('Fe', 'Mn', 'Nb', 'O')\",OTHERS,True\nmp-754889,\"{'Li': 2.0, 'Mn': 4.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1210156,\"{'Re': 2.0, 'Pd': 1.0, 'N': 4.0, 'O': 8.0}\",\"('N', 'O', 'Pd', 'Re')\",OTHERS,True\nmp-1182808,\"{'Cr': 4.0, 'P': 8.0, 'H': 64.0, 'N': 12.0, 'O': 40.0}\",\"('Cr', 'H', 'N', 'O', 'P')\",OTHERS,True\nmp-602355,\"{'Cr': 6.0, 'H': 2.0, 'O': 16.0}\",\"('Cr', 'H', 'O')\",OTHERS,True\nmp-979416,\"{'Ta': 2.0, 'Be': 2.0, 'O': 5.0}\",\"('Be', 'O', 'Ta')\",OTHERS,True\nmp-1079250,\"{'Sm': 2.0, 'Ni': 2.0, 'Sb': 4.0}\",\"('Ni', 'Sb', 'Sm')\",OTHERS,True\nmp-22875,\"{'Br': 1.0, 'Tl': 1.0}\",\"('Br', 'Tl')\",OTHERS,True\nmp-1184421,\"{'Gd': 6.0, 'Cd': 2.0}\",\"('Cd', 'Gd')\",OTHERS,True\nmp-1100745,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-24111,\"{'H': 24.0, 'O': 28.0, 'S': 4.0, 'Co': 2.0, 'Rb': 4.0}\",\"('Co', 'H', 'O', 'Rb', 'S')\",OTHERS,True\nmp-1180144,\"{'Mn': 1.0, 'Mo': 3.0}\",\"('Mn', 'Mo')\",OTHERS,True\nmp-556745,\"{'Tl': 4.0, 'C': 4.0, 'O': 8.0}\",\"('C', 'O', 'Tl')\",OTHERS,True\nmp-1215244,\"{'Zr': 1.0, 'Nb': 2.0, 'Pd': 9.0}\",\"('Nb', 'Pd', 'Zr')\",OTHERS,True\nmp-41191,\"{'F': 1.0, 'Na': 3.0, 'O': 10.0, 'P': 2.0, 'Ti': 2.0}\",\"('F', 'Na', 'O', 'P', 'Ti')\",OTHERS,True\nmp-1207921,\"{'U': 2.0, 'Fe': 8.0, 'B': 2.0}\",\"('B', 'Fe', 'U')\",OTHERS,True\nmp-1184948,\"{'K': 1.0, 'Mn': 1.0, 'O': 3.0}\",\"('K', 'Mn', 'O')\",OTHERS,True\nmvc-8328,\"{'Zn': 1.0, 'Fe': 4.0, 'Cu': 3.0, 'O': 12.0}\",\"('Cu', 'Fe', 'O', 'Zn')\",OTHERS,True\nmp-985587,\"{'Al': 6.0, 'O': 9.0}\",\"('Al', 'O')\",OTHERS,True\nmp-1223322,\"{'K': 1.0, 'Rb': 1.0, 'Mn': 1.0, 'F': 6.0}\",\"('F', 'K', 'Mn', 'Rb')\",OTHERS,True\nmp-1216066,\"{'Y': 2.0, 'Co': 1.0, 'Ru': 3.0}\",\"('Co', 'Ru', 'Y')\",OTHERS,True\nmp-1027645,\"{'Mo': 3.0, 'W': 1.0, 'S': 8.0}\",\"('Mo', 'S', 'W')\",OTHERS,True\nmp-1178643,\"{'Zn': 1.0, 'Cr': 1.0, 'Cu': 3.0, 'Se': 4.0}\",\"('Cr', 'Cu', 'Se', 'Zn')\",OTHERS,True\nmp-783904,\"{'Ni': 2.0, 'H': 40.0, 'S': 4.0, 'N': 4.0, 'O': 28.0}\",\"('H', 'N', 'Ni', 'O', 'S')\",OTHERS,True\nmp-683897,\"{'Pr': 6.0, 'Sn': 26.0, 'Rh': 8.0}\",\"('Pr', 'Rh', 'Sn')\",OTHERS,True\nmp-778793,\"{'Li': 4.0, 'Fe': 3.0, 'Si': 3.0, 'O': 12.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,True\nmp-766308,\"{'Ba': 4.0, 'Ca': 4.0, 'I': 16.0}\",\"('Ba', 'Ca', 'I')\",OTHERS,True\nmp-686280,\"{'Nd': 12.0, 'Al': 3.0, 'Si': 15.0, 'N': 21.0, 'O': 21.0}\",\"('Al', 'N', 'Nd', 'O', 'Si')\",OTHERS,True\nmp-1216446,\"{'V': 9.0, 'Te': 8.0}\",\"('Te', 'V')\",OTHERS,True\nmp-626872,\"{'V': 12.0, 'H': 8.0, 'O': 32.0}\",\"('H', 'O', 'V')\",OTHERS,True\nmp-5960,\"{'O': 12.0, 'Ca': 6.0, 'U': 2.0}\",\"('Ca', 'O', 'U')\",OTHERS,True\nmp-1198997,\"{'C': 16.0, 'S': 8.0, 'N': 8.0, 'O': 8.0, 'F': 8.0}\",\"('C', 'F', 'N', 'O', 'S')\",OTHERS,True\nmp-1219422,\"{'Sc': 28.0, 'As': 12.0}\",\"('As', 'Sc')\",OTHERS,True\nmp-757593,\"{'Li': 4.0, 'Co': 5.0, 'Sb': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'O', 'Sb')\",OTHERS,True\nmp-1245874,\"{'Ca': 6.0, 'B': 6.0, 'N': 10.0}\",\"('B', 'Ca', 'N')\",OTHERS,True\n"
  },
  {
    "path": "samples/predict_hypermaterials/QC_AC_data.csv",
    "content": ",composition,elements,label,for_test\nZn 58 Mg 40 Dy 2,\"{'Zn': 58.0, 'Mg': 40.0, 'Dy': 2.0}\",\"('Dy', 'Mg', 'Zn')\",QC,False\nAl 88.6 Cu 19.4 Li 50.3,\"{'Al': 88.6, 'Cu': 19.4, 'Li': 50.3}\",\"('Al', 'Cu', 'Li')\",AC,False\nGa 43 Co 47 Cu 10,\"{'Ga': 43.0, 'Co': 47.0, 'Cu': 10.0}\",\"('Co', 'Cu', 'Ga')\",QC,False\nZn 58 Mg 40 Tm 2,\"{'Zn': 58.0, 'Mg': 40.0, 'Tm': 2.0}\",\"('Mg', 'Tm', 'Zn')\",QC,False\nCd 65 Mg 20 Lu 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Lu': 15.0}\",\"('Cd', 'Lu', 'Mg')\",QC,False\nAl 39 Pd 21 Fe 2,\"{'Al': 39.0, 'Pd': 21.0, 'Fe': 2.0}\",\"('Al', 'Fe', 'Pd')\",AC,False\nAu 60.7 Sn 25.2 Eu 14.1,\"{'Au': 60.7, 'Sn': 25.2, 'Eu': 14.1}\",\"('Au', 'Eu', 'Sn')\",AC,False\nAl 70 Pd 21 Tc 9,\"{'Al': 70.0, 'Pd': 21.0, 'Tc': 9.0}\",\"('Al', 'Pd', 'Tc')\",QC,False\nAl 70.5 Pd 21 Mn 8.5,\"{'Al': 70.5, 'Pd': 21.0, 'Mn': 8.5}\",\"('Al', 'Mn', 'Pd')\",QC,False\nZn 76 Yb 14 Mg 10,\"{'Zn': 76.0, 'Yb': 14.0, 'Mg': 10.0}\",\"('Mg', 'Yb', 'Zn')\",QC,False\nAl 70 Ni 20 Rh 10,\"{'Al': 70.0, 'Ni': 20.0, 'Rh': 10.0}\",\"('Al', 'Ni', 'Rh')\",QC,False\nCd 6 Yb 1,\"{'Cd': 6.0, 'Yb': 1.0}\",\"('Cd', 'Yb')\",AC,False\nAg 42.5 Ga 42.5 Yb 15,\"{'Ag': 42.5, 'Ga': 42.5, 'Yb': 15.0}\",\"('Ag', 'Ga', 'Yb')\",AC,False\nAl 68 Pd 20 Ru 12,\"{'Al': 68.0, 'Pd': 20.0, 'Ru': 12.0}\",\"('Al', 'Pd', 'Ru')\",AC,False\nAl 73 Ir 14.5 Os 12.5,\"{'Al': 73.0, 'Ir': 14.5, 'Os': 12.5}\",\"('Al', 'Ir', 'Os')\",QC,False\nAu 49.7 In 35.4 Ce 14.9,\"{'Au': 49.7, 'In': 35.4, 'Ce': 14.9}\",\"('Au', 'Ce', 'In')\",AC,False\nAl 65 Cu 20 Ru 15,\"{'Al': 65.0, 'Cu': 20.0, 'Ru': 15.0}\",\"('Al', 'Cu', 'Ru')\",QC,False\nZn 80 Sc 15 Mg 5,\"{'Zn': 80.0, 'Sc': 15.0, 'Mg': 5.0}\",\"('Mg', 'Sc', 'Zn')\",QC,False\nGa 35 V 45 Ni 6 Si 14,\"{'Ga': 35.0, 'V': 45.0, 'Ni': 6.0, 'Si': 14.0}\",\"('Ga', 'Ni', 'Si', 'V')\",QC,False\nAl 71.5 Co 28.5,\"{'Al': 71.5, 'Co': 28.5}\",\"('Al', 'Co')\",AC,False\nTa 181 Te 112,\"{'Ta': 181.0, 'Te': 112.0}\",\"('Ta', 'Te')\",AC,False\nCd 65 Mg 20 Y 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Y': 15.0}\",\"('Cd', 'Mg', 'Y')\",QC,False\nAu 61.2 Sn 23.9 Dy 15.2,\"{'Au': 61.2, 'Sn': 23.9, 'Dy': 15.2}\",\"('Au', 'Dy', 'Sn')\",AC,False\nAg 42.9 In 43.6 Eu 13.5,\"{'Ag': 42.9, 'In': 43.6, 'Eu': 13.5}\",\"('Ag', 'Eu', 'In')\",AC,False\nGa 33 Fe 46 Cu 3 Si 18,\"{'Ga': 33.0, 'Fe': 46.0, 'Cu': 3.0, 'Si': 18.0}\",\"('Cu', 'Fe', 'Ga', 'Si')\",QC,False\nAl 76 Co 24,\"{'Al': 76.0, 'Co': 24.0}\",\"('Al', 'Co')\",AC,False\nAg 47.7 In 38.7 Ce 14.2,\"{'Ag': 47.7, 'In': 38.7, 'Ce': 14.2}\",\"('Ag', 'Ce', 'In')\",AC,False\nZn 77 Sc 7 Tm 9 Fe 7,\"{'Zn': 77.0, 'Sc': 7.0, 'Tm': 9.0, 'Fe': 7.0}\",\"('Fe', 'Sc', 'Tm', 'Zn')\",QC,False\nAg 42 In 45 Ca 13,\"{'Ag': 42.0, 'In': 45.0, 'Ca': 13.0}\",\"('Ag', 'Ca', 'In')\",AC,False\nZn 40 Mg 39.5 Ga 25,\"{'Zn': 40.0, 'Mg': 39.5, 'Ga': 25.0}\",\"('Ga', 'Mg', 'Zn')\",QC,False\nAl 70.5 Mn 16.5 Pd 13,\"{'Al': 70.5, 'Mn': 16.5, 'Pd': 13.0}\",\"('Al', 'Mn', 'Pd')\",QC,False\nMn 82 Si 15 Al 3,\"{'Mn': 82.0, 'Si': 15.0, 'Al': 3.0}\",\"('Al', 'Mn', 'Si')\",QC,False\nAl 65 Cu 20 Fe 15,\"{'Al': 65.0, 'Cu': 20.0, 'Fe': 15.0}\",\"('Al', 'Cu', 'Fe')\",QC,False\nTa 1.6 Te 1,\"{'Ta': 1.6, 'Te': 1.0}\",\"('Ta', 'Te')\",QC,False\nCd 65 Mg 20 Tm 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Tm': 15.0}\",\"('Cd', 'Mg', 'Tm')\",QC,False\nCd 84 Yb 16,\"{'Cd': 84.0, 'Yb': 16.0}\",\"('Cd', 'Yb')\",QC,False\nAl 73.2 Co 26.8,\"{'Al': 73.2, 'Co': 26.8}\",\"('Al', 'Co')\",AC,False\nCd 65 Mg 20 Dy 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Dy': 15.0}\",\"('Cd', 'Dy', 'Mg')\",QC,False\nAu 44.2 In 41.7 Ca 14.1,\"{'Au': 44.2, 'In': 41.7, 'Ca': 14.1}\",\"('Au', 'Ca', 'In')\",QC,False\nZn 75 Sc 15 Ag 10,\"{'Zn': 75.0, 'Sc': 15.0, 'Ag': 10.0}\",\"('Ag', 'Sc', 'Zn')\",QC,False\nCd 25 Eu 4,\"{'Cd': 25.0, 'Eu': 4.0}\",\"('Cd', 'Eu')\",AC,False\nZn 58 Mg 40 Er 2,\"{'Zn': 58.0, 'Mg': 40.0, 'Er': 2.0}\",\"('Er', 'Mg', 'Zn')\",QC,False\nAu 50.5 Ga 35.9 Ca 13.6,\"{'Au': 50.5, 'Ga': 35.9, 'Ca': 13.6}\",\"('Au', 'Ca', 'Ga')\",AC,False\nAg 2 In 4 Yb 1,\"{'Ag': 2.0, 'In': 4.0, 'Yb': 1.0}\",\"('Ag', 'In', 'Yb')\",AC,False\nZn 58 Mg 40 Y 2,\"{'Zn': 58.0, 'Mg': 40.0, 'Y': 2.0}\",\"('Mg', 'Y', 'Zn')\",QC,False\nZn 56.8 Er 8.7 Mg 34.6,\"{'Zn': 56.8, 'Er': 8.7, 'Mg': 34.6}\",\"('Er', 'Mg', 'Zn')\",QC,False\nCd 76 Ca 13,\"{'Cd': 76.0, 'Ca': 13.0}\",\"('Ca', 'Cd')\",AC,False\nZn 73.6 Mg 2.5 Sc 11.2,\"{'Zn': 73.6, 'Mg': 2.5, 'Sc': 11.2}\",\"('Mg', 'Sc', 'Zn')\",AC,False\nV 15 Ni 10 Si 1,\"{'V': 15.0, 'Ni': 10.0, 'Si': 1.0}\",\"('Ni', 'Si', 'V')\",QC,False\nMn 4 Si 1,\"{'Mn': 4.0, 'Si': 1.0}\",\"('Mn', 'Si')\",QC,False\nGa 3.22 Ni 2.78 Zr 1,\"{'Ga': 3.22, 'Ni': 2.78, 'Zr': 1.0}\",\"('Ga', 'Ni', 'Zr')\",AC,False\nZn 77 Sc 8 Ho 8 Fe 7,\"{'Zn': 77.0, 'Sc': 8.0, 'Ho': 8.0, 'Fe': 7.0}\",\"('Fe', 'Ho', 'Sc', 'Zn')\",QC,False\nZn 84 Ti 8 Mg 8,\"{'Zn': 84.0, 'Ti': 8.0, 'Mg': 8.0}\",\"('Mg', 'Ti', 'Zn')\",QC,False\nAl 70 Pd 23 Mn 6 Si 1,\"{'Al': 70.0, 'Pd': 23.0, 'Mn': 6.0, 'Si': 1.0}\",\"('Al', 'Mn', 'Pd', 'Si')\",AC,False\nAu 47.2 In 37.2 Gd 15.6,\"{'Au': 47.2, 'In': 37.2, 'Gd': 15.6}\",\"('Au', 'Gd', 'In')\",AC,False\nGa 3.64 Ni 2.36 Sc 1,\"{'Ga': 3.64, 'Ni': 2.36, 'Sc': 1.0}\",\"('Ga', 'Ni', 'Sc')\",AC,False\nMg 43 Al 42 Pd 15,\"{'Mg': 43.0, 'Al': 42.0, 'Pd': 15.0}\",\"('Al', 'Mg', 'Pd')\",QC,False\nAu 62.3 Sn 23.1 Gd 14.6,\"{'Au': 62.3, 'Sn': 23.1, 'Gd': 14.6}\",\"('Au', 'Gd', 'Sn')\",AC,False\nCd 65 Mg 20 Ca 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Ca': 15.0}\",\"('Ca', 'Cd', 'Mg')\",QC,False\nAg 41 In 44 Yb 15,\"{'Ag': 41.0, 'In': 44.0, 'Yb': 15.0}\",\"('Ag', 'In', 'Yb')\",AC,False\nAl 74.8 Co 17.0 Ni 8.2,\"{'Al': 74.8, 'Co': 17.0, 'Ni': 8.2}\",\"('Al', 'Co', 'Ni')\",AC,False\nAl 72 Pd 17 Os 11,\"{'Al': 72.0, 'Pd': 17.0, 'Os': 11.0}\",\"('Al', 'Os', 'Pd')\",QC,False\nCd 85 Ca 15,\"{'Cd': 85.0, 'Ca': 15.0}\",\"('Ca', 'Cd')\",QC,False\nAl 71 Pd 21 Re 8,\"{'Al': 71.0, 'Pd': 21.0, 'Re': 8.0}\",\"('Al', 'Pd', 'Re')\",QC,False\nV 3 Ni 2,\"{'V': 3.0, 'Ni': 2.0}\",\"('Ni', 'V')\",QC,False\nCd 65 Mg 20 Tb 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Tb': 15.0}\",\"('Cd', 'Mg', 'Tb')\",QC,False\nAg 2 In 4 Ca 1,\"{'Ag': 2.0, 'In': 4.0, 'Ca': 1.0}\",\"('Ag', 'Ca', 'In')\",AC,False\nAl 40 Mn 10.1 Si 7.4,\"{'Al': 40.0, 'Mn': 10.1, 'Si': 7.4}\",\"('Al', 'Mn', 'Si')\",AC,False\nAg 42.2 In 42.6 Tm 15.2,\"{'Ag': 42.2, 'In': 42.6, 'Tm': 15.2}\",\"('Ag', 'In', 'Tm')\",AC,False\nAu 61.2 Sn 24.3 Ca 14.5,\"{'Au': 61.2, 'Sn': 24.3, 'Ca': 14.5}\",\"('Au', 'Ca', 'Sn')\",AC,False\nZn 65 Mg 26 Ho 9,\"{'Zn': 65.0, 'Mg': 26.0, 'Ho': 9.0}\",\"('Ho', 'Mg', 'Zn')\",QC,False\nAu 64.2 Sn 21.3 Pr 14.5,\"{'Au': 64.2, 'Sn': 21.3, 'Pr': 14.5}\",\"('Au', 'Pr', 'Sn')\",AC,False\nCd 6 Gd 1,\"{'Cd': 6.0, 'Gd': 1.0}\",\"('Cd', 'Gd')\",AC,False\nAg 43.4 In 42.8 Eu 13.8,\"{'Ag': 43.4, 'In': 42.8, 'Eu': 13.8}\",\"('Ag', 'Eu', 'In')\",AC,False\nAl 66.6 Rh 26.1 Si 7.3,\"{'Al': 66.6, 'Rh': 26.1, 'Si': 7.3}\",\"('Al', 'Rh', 'Si')\",AC,False\nAl 67 Pd 11 Mn 14 Si 7,\"{'Al': 67.0, 'Pd': 11.0, 'Mn': 14.0, 'Si': 7.0}\",\"('Al', 'Mn', 'Pd', 'Si')\",AC,False\nZn 61.4 Mg 24.5 Er 14.1,\"{'Zn': 61.4, 'Mg': 24.5, 'Er': 14.1}\",\"('Er', 'Mg', 'Zn')\",AC,False\nGa 3.85 Ni 2.15 Hf 1,\"{'Ga': 3.85, 'Ni': 2.15, 'Hf': 1.0}\",\"('Ga', 'Hf', 'Ni')\",AC,False\nAl 75 Os 10 Pd 15,\"{'Al': 75.0, 'Os': 10.0, 'Pd': 15.0}\",\"('Al', 'Os', 'Pd')\",QC,False\nAg 42 In 42 Yb 16,\"{'Ag': 42.0, 'In': 42.0, 'Yb': 16.0}\",\"('Ag', 'In', 'Yb')\",QC,False\nZn 77 Mg 18 Hf 5,\"{'Zn': 77.0, 'Mg': 18.0, 'Hf': 5.0}\",\"('Hf', 'Mg', 'Zn')\",AC,False\nAu 61.1 Ga 25.0 Ca 13.9,\"{'Au': 61.1, 'Ga': 25.0, 'Ca': 13.9}\",\"('Au', 'Ca', 'Ga')\",AC,False\nZn 55 Mg 40 Nd 5,\"{'Zn': 55.0, 'Mg': 40.0, 'Nd': 5.0}\",\"('Mg', 'Nd', 'Zn')\",QC,False\nAl 57.3 Cu 31.4 Ru 11.3,\"{'Al': 57.3, 'Cu': 31.4, 'Ru': 11.3}\",\"('Al', 'Cu', 'Ru')\",AC,False\nCd 65 Mg 20 Er 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Er': 15.0}\",\"('Cd', 'Er', 'Mg')\",QC,False\nAl 71.8 Co 21.1 Ni 7.1,\"{'Al': 71.8, 'Co': 21.1, 'Ni': 7.1}\",\"('Al', 'Co', 'Ni')\",AC,False\nZn 75 Sc 15 Co 10,\"{'Zn': 75.0, 'Sc': 15.0, 'Co': 10.0}\",\"('Co', 'Sc', 'Zn')\",QC,False\nAl 65 Cu 20 Ir 15,\"{'Al': 65.0, 'Cu': 20.0, 'Ir': 15.0}\",\"('Al', 'Cu', 'Ir')\",QC,False\nAu 37 In 39.6 Ca 12.6,\"{'Au': 37.0, 'In': 39.6, 'Ca': 12.6}\",\"('Au', 'Ca', 'In')\",AC,False\nZn 77 Sc 8 Er 8 Fe 7,\"{'Zn': 77.0, 'Sc': 8.0, 'Er': 8.0, 'Fe': 7.0}\",\"('Er', 'Fe', 'Sc', 'Zn')\",QC,False\nZn 58 Mg 40 Lu 2,\"{'Zn': 58.0, 'Mg': 40.0, 'Lu': 2.0}\",\"('Lu', 'Mg', 'Zn')\",QC,False\nCu 48 Sc 15 Ga 34 Mg 3,\"{'Cu': 48.0, 'Sc': 15.0, 'Ga': 34.0, 'Mg': 3.0}\",\"('Cu', 'Ga', 'Mg', 'Sc')\",QC,False\nZn 74 Mg 15 Ho 11,\"{'Zn': 74.0, 'Mg': 15.0, 'Ho': 11.0}\",\"('Ho', 'Mg', 'Zn')\",QC,False\nAl 6 Cu 1 Li 3,\"{'Al': 6.0, 'Cu': 1.0, 'Li': 3.0}\",\"('Al', 'Cu', 'Li')\",QC,False\nAl 72 Pd 17 Ru 11,\"{'Al': 72.0, 'Pd': 17.0, 'Ru': 11.0}\",\"('Al', 'Pd', 'Ru')\",QC,False\nZn 47.3 Mg 27 Al 10.7,\"{'Zn': 47.3, 'Mg': 27.0, 'Al': 10.7}\",\"('Al', 'Mg', 'Zn')\",AC,False\nZn 17 Yb 3,\"{'Zn': 17.0, 'Yb': 3.0}\",\"('Yb', 'Zn')\",AC,False\nAg 41.7 In 43.2 Yb 15.1,\"{'Ag': 41.7, 'In': 43.2, 'Yb': 15.1}\",\"('Ag', 'In', 'Yb')\",AC,False\nCd 65 Mg 20 Yb 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Yb': 15.0}\",\"('Cd', 'Mg', 'Yb')\",QC,False\nZn 64 Mg 25 Y 11,\"{'Zn': 64.0, 'Mg': 25.0, 'Y': 11.0}\",\"('Mg', 'Y', 'Zn')\",QC,False\nZn 77 Mg 17.5 Ti 5.5,\"{'Zn': 77.0, 'Mg': 17.5, 'Ti': 5.5}\",\"('Mg', 'Ti', 'Zn')\",AC,False\nCd 6 Ca 1,\"{'Cd': 6.0, 'Ca': 1.0}\",\"('Ca', 'Cd')\",AC,False\nAl 65 Cu 15 Rh 20,\"{'Al': 65.0, 'Cu': 15.0, 'Rh': 20.0}\",\"('Al', 'Cu', 'Rh')\",QC,False\nZn 58 Mg 40 Ho 2,\"{'Zn': 58.0, 'Mg': 40.0, 'Ho': 2.0}\",\"('Ho', 'Mg', 'Zn')\",QC,False\nCd 6 Dy 1,\"{'Cd': 6.0, 'Dy': 1.0}\",\"('Cd', 'Dy')\",AC,False\nCd 6 Sr 1,\"{'Cd': 6.0, 'Sr': 1.0}\",\"('Cd', 'Sr')\",AC,False\nCr 5 Ni 3 Si 2,\"{'Cr': 5.0, 'Ni': 3.0, 'Si': 2.0}\",\"('Cr', 'Ni', 'Si')\",QC,False\nCd 6 Sm 1,\"{'Cd': 6.0, 'Sm': 1.0}\",\"('Cd', 'Sm')\",AC,False\nAl 70 Pd 20 Re 10,\"{'Al': 70.0, 'Pd': 20.0, 'Re': 10.0}\",\"('Al', 'Pd', 'Re')\",QC,False\nAl 72.5 Pd 27.5,\"{'Al': 72.5, 'Pd': 27.5}\",\"('Al', 'Pd')\",AC,False\nAu 42 In 42 Yb 16,\"{'Au': 42.0, 'In': 42.0, 'Yb': 16.0}\",\"('Au', 'In', 'Yb')\",AC,False\nZn 75 Sc 15 Fe 10,\"{'Zn': 75.0, 'Sc': 15.0, 'Fe': 10.0}\",\"('Fe', 'Sc', 'Zn')\",QC,False\nAg 46.4 In 39.7 Gd 13.9,\"{'Ag': 46.4, 'In': 39.7, 'Gd': 13.9}\",\"('Ag', 'Gd', 'In')\",AC,False\nBe 17 Ru 3,\"{'Be': 17.0, 'Ru': 3.0}\",\"('Be', 'Ru')\",AC,False\nAl 65 Cu 20 Co 15,\"{'Al': 65.0, 'Cu': 20.0, 'Co': 15.0}\",\"('Al', 'Co', 'Cu')\",QC,False\nZn 56.8 Mg 34.6 Tb 8.7,\"{'Zn': 56.8, 'Mg': 34.6, 'Tb': 8.7}\",\"('Mg', 'Tb', 'Zn')\",QC,False\nAl 71.5 Co 23.6 Cu 4.9,\"{'Al': 71.5, 'Co': 23.6, 'Cu': 4.9}\",\"('Al', 'Co', 'Cu')\",AC,False\nCd 65 Mg 20 Gd 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Gd': 15.0}\",\"('Cd', 'Gd', 'Mg')\",QC,False\nAl 55 Cu 25.5 Fe 12.5 Si 7,\"{'Al': 55.0, 'Cu': 25.5, 'Fe': 12.5, 'Si': 7.0}\",\"('Al', 'Cu', 'Fe', 'Si')\",AC,False\nZn 75 Sc 15 Mn 10,\"{'Zn': 75.0, 'Sc': 15.0, 'Mn': 10.0}\",\"('Mn', 'Sc', 'Zn')\",QC,False\nZn 76 Mg 17 Hf 7,\"{'Zn': 76.0, 'Mg': 17.0, 'Hf': 7.0}\",\"('Hf', 'Mg', 'Zn')\",QC,False\nAl 75 Ru 10 Pd 15,\"{'Al': 75.0, 'Ru': 10.0, 'Pd': 15.0}\",\"('Al', 'Pd', 'Ru')\",QC,False\nAu 12.2 In 6.3 Ca 3,\"{'Au': 12.2, 'In': 6.3, 'Ca': 3.0}\",\"('Au', 'Ca', 'In')\",AC,False\nAl 55.1 Cu 14.6 Ru 20.2 Si 10.1,\"{'Al': 55.1, 'Cu': 14.6, 'Ru': 20.2, 'Si': 10.1}\",\"('Al', 'Cu', 'Ru', 'Si')\",AC,False\nZn 75 Sc 15 Au 10,\"{'Zn': 75.0, 'Sc': 15.0, 'Au': 10.0}\",\"('Au', 'Sc', 'Zn')\",QC,False\nCd 19 Pr 3,\"{'Cd': 19.0, 'Pr': 3.0}\",\"('Cd', 'Pr')\",AC,False\nZn 72 Sc 16 Cu 12,\"{'Zn': 72.0, 'Sc': 16.0, 'Cu': 12.0}\",\"('Cu', 'Sc', 'Zn')\",QC,True\nAu 42.9 In 41.9 Yb 15.2,\"{'Au': 42.9, 'In': 41.9, 'Yb': 15.2}\",\"('Au', 'In', 'Yb')\",AC,True\nZn 75 Sc 15 Ni 10,\"{'Zn': 75.0, 'Sc': 15.0, 'Ni': 10.0}\",\"('Ni', 'Sc', 'Zn')\",QC,True\nGa 2.6 Cu 3.4 Lu 1,\"{'Ga': 2.6, 'Cu': 3.4, 'Lu': 1.0}\",\"('Cu', 'Ga', 'Lu')\",AC,True\nAl 70 Ni 20 Ru 10,\"{'Al': 70.0, 'Ni': 20.0, 'Ru': 10.0}\",\"('Al', 'Ni', 'Ru')\",QC,True\nZn 75 Sc 15 Pd 10,\"{'Zn': 75.0, 'Sc': 15.0, 'Pd': 10.0}\",\"('Pd', 'Sc', 'Zn')\",QC,True\nAl 65 Cu 20 Os 15,\"{'Al': 65.0, 'Cu': 20.0, 'Os': 15.0}\",\"('Al', 'Cu', 'Os')\",QC,True\nGa 2.3 Cu 3.7 Sc 1,\"{'Ga': 2.3, 'Cu': 3.7, 'Sc': 1.0}\",\"('Cu', 'Ga', 'Sc')\",AC,True\nAg 46.9 In 38.7 Pr 14.4,\"{'Ag': 46.9, 'In': 38.7, 'Pr': 14.4}\",\"('Ag', 'In', 'Pr')\",AC,True\nZn 34.6 Mg 40 Al 25.4,\"{'Zn': 34.6, 'Mg': 40.0, 'Al': 25.4}\",\"('Al', 'Mg', 'Zn')\",AC,True\nAu 65 Sn 20 Ce 15,\"{'Au': 65.0, 'Sn': 20.0, 'Ce': 15.0}\",\"('Au', 'Ce', 'Sn')\",AC,True\nCd 6 Nd 1,\"{'Cd': 6.0, 'Nd': 1.0}\",\"('Cd', 'Nd')\",AC,True\nZn 75 Sc 15 Pt 10,\"{'Zn': 75.0, 'Sc': 15.0, 'Pt': 10.0}\",\"('Pt', 'Sc', 'Zn')\",QC,True\nZn 40 Mg 39.5 Ga 16.4 Al 4.1,\"{'Zn': 40.0, 'Mg': 39.5, 'Ga': 16.4, 'Al': 4.1}\",\"('Al', 'Ga', 'Mg', 'Zn')\",AC,True\nZn 37 Mg 46 Al 17,\"{'Zn': 37.0, 'Mg': 46.0, 'Al': 17.0}\",\"('Al', 'Mg', 'Zn')\",AC,True\nZn 17 Sc 3,\"{'Zn': 17.0, 'Sc': 3.0}\",\"('Sc', 'Zn')\",AC,True\nAg 42 In 42 Ca 16,\"{'Ag': 42.0, 'In': 42.0, 'Ca': 16.0}\",\"('Ag', 'Ca', 'In')\",QC,True\nAu 61.2 Sn 24.5 Eu 14.3,\"{'Au': 61.2, 'Sn': 24.5, 'Eu': 14.3}\",\"('Au', 'Eu', 'Sn')\",AC,True\nCd 6 Y 1,\"{'Cd': 6.0, 'Y': 1.0}\",\"('Cd', 'Y')\",AC,True\nZn 84 Mg 7 Zr 9,\"{'Zn': 84.0, 'Mg': 7.0, 'Zr': 9.0}\",\"('Mg', 'Zn', 'Zr')\",QC,True\nCd 65 Mg 20 Ho 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Ho': 15.0}\",\"('Cd', 'Ho', 'Mg')\",QC,True\nZn 56.8 Mg 34.6 Dy 8.7,\"{'Zn': 56.8, 'Mg': 34.6, 'Dy': 8.7}\",\"('Dy', 'Mg', 'Zn')\",QC,True\nAl 71.5 Cu 8.5 Ru 20,\"{'Al': 71.5, 'Cu': 8.5, 'Ru': 20.0}\",\"('Al', 'Cu', 'Ru')\",AC,True\nAl 75 Mn 20 Pd 5,\"{'Al': 75.0, 'Mn': 20.0, 'Pd': 5.0}\",\"('Al', 'Mn', 'Pd')\",AC,True\nTa 97 Te 60,\"{'Ta': 97.0, 'Te': 60.0}\",\"('Ta', 'Te')\",AC,True\nZn 77 Mg 18 Zr 5,\"{'Zn': 77.0, 'Mg': 18.0, 'Zr': 5.0}\",\"('Mg', 'Zn', 'Zr')\",AC,True\nNi 70.6 Cr 29.4,\"{'Ni': 70.6, 'Cr': 29.4}\",\"('Cr', 'Ni')\",QC,True\nAl 40 Mn 25 Fe 15 Ge 20,\"{'Al': 40.0, 'Mn': 25.0, 'Fe': 15.0, 'Ge': 20.0}\",\"('Al', 'Fe', 'Ge', 'Mn')\",QC,True\nAl 75 Pd 13 Ru 12,\"{'Al': 75.0, 'Pd': 13.0, 'Ru': 12.0}\",\"('Al', 'Pd', 'Ru')\",AC,True\nAu 60.3 Sn 24.6 Yb 15.1,\"{'Au': 60.3, 'Sn': 24.6, 'Yb': 15.1}\",\"('Au', 'Sn', 'Yb')\",AC,True\nCu 46 Sc 16 Al 38,\"{'Cu': 46.0, 'Sc': 16.0, 'Al': 38.0}\",\"('Al', 'Cu', 'Sc')\",QC,True\nAl 70 Ni 15 Fe 15,\"{'Al': 70.0, 'Ni': 15.0, 'Fe': 15.0}\",\"('Al', 'Fe', 'Ni')\",QC,True\n"
  },
  {
    "path": "samples/predict_hypermaterials/model_training_and_vitural_screening.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"This notebook shows how to train a random forest classifier that classifies any given chemical composition into one of three kinds of material types: quasicrystals (QCs), approximant crystals (ACs), and others (OTHERS) including ordinary periodic crystals, and to perform a virtual screening to predict a set of chemical compositions to form quasicrystalline phases. The dataset includes chemical compositions of 80 QCs, 78 ACs, and 10,000 ordinary crystals that have been discovered to date.\\n\",\n    \"\\n\",\n    \"You can assess [our paper](https://onlinelibrary.wiley.com/doi/10.1002/adma.202102507) to know the details of the data analysis workflow. The pre-trained model can be downloaded from [here](https://github.com/yoshida-lab/XenonPy/releases/download/v0.6.5/best_QC_AC_classification_model.pkl.z).\\n\",\n    \"\\n\",\n    \"XenonPy with version v0.6.5 or higher is needed to execute the following codes. Please follow the [official installation guide](https://xenonpy.readthedocs.io/en/latest/installation.html#using-conda-and-pip) to prepare your local environment.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run tools.ipynb\\n\",\n    \"\\n\",\n    \"import pandas as pd\\n\",\n    \"import numpy as np\\n\",\n    \"import seaborn as sns\\n\",\n    \"import matplotlib\\n\",\n    \"\\n\",\n    \"from pathlib import Path\\n\",\n    \"from matplotlib import pyplot as plt\\n\",\n    \"\\n\",\n    \"# user-friendly print\\n\",\n    \"from IPython.core.interactiveshell import InteractiveShell\\n\",\n    \"InteractiveShell.ast_node_interactivity = \\\"all\\\"\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"'0.6.5'\"\n      ]\n     },\n     \"execution_count\": 2,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# version should greater than 0.6.5\\n\",\n    \"\\n\",\n    \"import xenonpy as xe\\n\",\n    \"xe.__version__\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Model training\\n\",\n    \"\\n\",\n    \"The model is trained using the optimized hyperparameters in the previous paper; the list of chemical compositions for `QC` and `AC` was collected from the literature, and the list of 10,000 compositions for `OTHERS` was randomly selected from the [Materials Project database](https://materialsproject.org/). \\n\",\n    \"\\n\",\n    \"#### load training data\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>label</th>\\n\",\n       \"      <th>for_test</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1077980</th>\\n\",\n       \"      <td>{'Sr': 1.0, 'Ag': 4.0, 'Sb': 2.0}</td>\\n\",\n       \"      <td>(Ag, Sb, Sr)</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-30079</th>\\n\",\n       \"      <td>{'Li': 1.0, 'Mg': 2.0, 'Ge': 1.0}</td>\\n\",\n       \"      <td>(Ge, Li, Mg)</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mvc-2967</th>\\n\",\n       \"      <td>{'Ba': 2.0, 'Tl': 1.0, 'Fe': 2.0, 'O': 7.0}</td>\\n\",\n       \"      <td>(Ba, Fe, O, Tl)</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1202279</th>\\n\",\n       \"      <td>{'K': 18.0, 'Ho': 18.0, 'F': 72.0}</td>\\n\",\n       \"      <td>(F, Ho, K)</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-34421</th>\\n\",\n       \"      <td>{'Bi': 3.0, 'Cd': 1.0, 'O': 7.0}</td>\\n\",\n       \"      <td>(Bi, Cd, O)</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-5960</th>\\n\",\n       \"      <td>{'O': 12.0, 'Ca': 6.0, 'U': 2.0}</td>\\n\",\n       \"      <td>(Ca, O, U)</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1198997</th>\\n\",\n       \"      <td>{'C': 16.0, 'S': 8.0, 'N': 8.0, 'O': 8.0, 'F':...</td>\\n\",\n       \"      <td>(C, F, N, O, S)</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1219422</th>\\n\",\n       \"      <td>{'Sc': 28.0, 'As': 12.0}</td>\\n\",\n       \"      <td>(As, Sc)</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-757593</th>\\n\",\n       \"      <td>{'Li': 4.0, 'Co': 5.0, 'Sb': 1.0, 'O': 12.0}</td>\\n\",\n       \"      <td>(Co, Li, O, Sb)</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1245874</th>\\n\",\n       \"      <td>{'Ca': 6.0, 'B': 6.0, 'N': 10.0}</td>\\n\",\n       \"      <td>(B, Ca, N)</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>10158 rows × 4 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                                  composition  \\\\\\n\",\n       \"mp-1077980                  {'Sr': 1.0, 'Ag': 4.0, 'Sb': 2.0}   \\n\",\n       \"mp-30079                    {'Li': 1.0, 'Mg': 2.0, 'Ge': 1.0}   \\n\",\n       \"mvc-2967          {'Ba': 2.0, 'Tl': 1.0, 'Fe': 2.0, 'O': 7.0}   \\n\",\n       \"mp-1202279                 {'K': 18.0, 'Ho': 18.0, 'F': 72.0}   \\n\",\n       \"mp-34421                     {'Bi': 3.0, 'Cd': 1.0, 'O': 7.0}   \\n\",\n       \"...                                                       ...   \\n\",\n       \"mp-5960                      {'O': 12.0, 'Ca': 6.0, 'U': 2.0}   \\n\",\n       \"mp-1198997  {'C': 16.0, 'S': 8.0, 'N': 8.0, 'O': 8.0, 'F':...   \\n\",\n       \"mp-1219422                           {'Sc': 28.0, 'As': 12.0}   \\n\",\n       \"mp-757593        {'Li': 4.0, 'Co': 5.0, 'Sb': 1.0, 'O': 12.0}   \\n\",\n       \"mp-1245874                   {'Ca': 6.0, 'B': 6.0, 'N': 10.0}   \\n\",\n       \"\\n\",\n       \"                   elements   label  for_test  \\n\",\n       \"mp-1077980     (Ag, Sb, Sr)  OTHERS     False  \\n\",\n       \"mp-30079       (Ge, Li, Mg)  OTHERS     False  \\n\",\n       \"mvc-2967    (Ba, Fe, O, Tl)  OTHERS     False  \\n\",\n       \"mp-1202279       (F, Ho, K)  OTHERS     False  \\n\",\n       \"mp-34421        (Bi, Cd, O)  OTHERS     False  \\n\",\n       \"...                     ...     ...       ...  \\n\",\n       \"mp-5960          (Ca, O, U)  OTHERS      True  \\n\",\n       \"mp-1198997  (C, F, N, O, S)  OTHERS      True  \\n\",\n       \"mp-1219422         (As, Sc)  OTHERS      True  \\n\",\n       \"mp-757593   (Co, Li, O, Sb)  OTHERS      True  \\n\",\n       \"mp-1245874       (B, Ca, N)  OTHERS      True  \\n\",\n       \"\\n\",\n       \"[10158 rows x 4 columns]\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"array(['OTHERS', 'QC', 'AC'], dtype=object)\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"training_data = pd.read_csv(\\n\",\n    \"    'training_data.csv',\\n\",\n    \"    index_col=0,\\n\",\n    \"    converters={'composition': eval, 'elements': eval},\\n\",\n    \")\\n\",\n    \"\\n\",\n    \"training_data\\n\",\n    \"training_data.label.unique()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"As described above, the dataset consists of three class labels, `QC`, `AC`, and `OTHERS`.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### Calculate compositional descriptors\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"We use `xenonpy.descriptor.Compositions` to calculate the 232-dimensional compositional descriptors. As described in [our paper](https://onlinelibrary.wiley.com/doi/full/10.1002/adma.202102507), we use `weighted average`, `weighted variance`, `max-pooling`, and `min-pooling` of the 58 element features (4 $\\\\times$ 58 = 232-dimension).\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"\\u001b[0;31mSignature:\\u001b[0m \\u001b[0mcompositions\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mfit_transform\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mX\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0my\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m**\\u001b[0m\\u001b[0mfit_params\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n       \"\\u001b[0;31mDocstring:\\u001b[0m\\n\",\n       \"Fit to data, then transform it.\\n\",\n       \"\\n\",\n       \"Fits transformer to `X` and `y` with optional parameters `fit_params`\\n\",\n       \"and returns a transformed version of `X`.\\n\",\n       \"\\n\",\n       \"Parameters\\n\",\n       \"----------\\n\",\n       \"X : array-like of shape (n_samples, n_features)\\n\",\n       \"    Input samples.\\n\",\n       \"\\n\",\n       \"y :  array-like of shape (n_samples,) or (n_samples, n_outputs),                 default=None\\n\",\n       \"    Target values (None for unsupervised transformations).\\n\",\n       \"\\n\",\n       \"**fit_params : dict\\n\",\n       \"    Additional fit parameters.\\n\",\n       \"\\n\",\n       \"Returns\\n\",\n       \"-------\\n\",\n       \"X_new : ndarray array of shape (n_samples, n_features_new)\\n\",\n       \"    Transformed array.\\n\",\n       \"\\u001b[0;31mFile:\\u001b[0m      ~/mambaforge/envs/xepy38/lib/python3.8/site-packages/sklearn/base.py\\n\",\n       \"\\u001b[0;31mType:\\u001b[0m      method\\n\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import Compositions\\n\",\n    \"\\n\",\n    \"# use specific featurizers\\n\",\n    \"featurizers = ['WeightedAverage', 'WeightedVariance', 'MaxPooling', 'MinPooling']\\n\",\n    \"\\n\",\n    \"compositions = Compositions(featurizers=featurizers, n_jobs=20)\\n\",\n    \"compositions.fit_transform?\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"To use the following calculator, users need to feed an iterable object containing the compositional information of compounds to `cal.transform` or `cal.fit_transform` method. The data type in the iterable object can be `pymatgen.core.Compositon`, or a python `dict`, for example, {‘H’: 2, ‘O’: 1}.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 3.05 s, sys: 567 ms, total: 3.61 s\\n\",\n      \"Wall time: 5.91 s\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1077980</th>\\n\",\n       \"      <td>46.857143</td>\\n\",\n       \"      <td>158.428571</td>\\n\",\n       \"      <td>238.714286</td>\\n\",\n       \"      <td>15.957143</td>\\n\",\n       \"      <td>108.944686</td>\\n\",\n       \"      <td>2201.857143</td>\\n\",\n       \"      <td>79.497211</td>\\n\",\n       \"      <td>800.285714</td>\\n\",\n       \"      <td>150.428571</td>\\n\",\n       \"      <td>139.571429</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>5.0</td>\\n\",\n       \"      <td>0.205</td>\\n\",\n       \"      <td>24.00000</td>\\n\",\n       \"      <td>206.0</td>\\n\",\n       \"      <td>247.0</td>\\n\",\n       \"      <td>243.0</td>\\n\",\n       \"      <td>314.8</td>\\n\",\n       \"      <td>2600.000000</td>\\n\",\n       \"      <td>6.600</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-30079</th>\\n\",\n       \"      <td>14.750000</td>\\n\",\n       \"      <td>153.000000</td>\\n\",\n       \"      <td>233.500000</td>\\n\",\n       \"      <td>13.675000</td>\\n\",\n       \"      <td>32.045000</td>\\n\",\n       \"      <td>1736.787500</td>\\n\",\n       \"      <td>49.384485</td>\\n\",\n       \"      <td>758.250000</td>\\n\",\n       \"      <td>132.500000</td>\\n\",\n       \"      <td>133.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.322</td>\\n\",\n       \"      <td>60.00000</td>\\n\",\n       \"      <td>173.0</td>\\n\",\n       \"      <td>212.0</td>\\n\",\n       \"      <td>243.0</td>\\n\",\n       \"      <td>245.1</td>\\n\",\n       \"      <td>4602.000000</td>\\n\",\n       \"      <td>5.840</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mvc-2967</th>\\n\",\n       \"      <td>25.083333</td>\\n\",\n       \"      <td>157.534162</td>\\n\",\n       \"      <td>206.416667</td>\\n\",\n       \"      <td>17.283333</td>\\n\",\n       \"      <td>58.559750</td>\\n\",\n       \"      <td>1018.944167</td>\\n\",\n       \"      <td>77.911857</td>\\n\",\n       \"      <td>1066.825000</td>\\n\",\n       \"      <td>110.083333</td>\\n\",\n       \"      <td>100.750000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.128</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>291.2</td>\\n\",\n       \"      <td>317.500000</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1202279</th>\\n\",\n       \"      <td>20.333333</td>\\n\",\n       \"      <td>158.349076</td>\\n\",\n       \"      <td>193.166667</td>\\n\",\n       \"      <td>22.066667</td>\\n\",\n       \"      <td>46.670374</td>\\n\",\n       \"      <td>725.840000</td>\\n\",\n       \"      <td>38.382626</td>\\n\",\n       \"      <td>1038.466667</td>\\n\",\n       \"      <td>103.833333</td>\\n\",\n       \"      <td>103.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.164</td>\\n\",\n       \"      <td>0.02770</td>\\n\",\n       \"      <td>147.0</td>\\n\",\n       \"      <td>146.0</td>\\n\",\n       \"      <td>171.0</td>\\n\",\n       \"      <td>336.4</td>\\n\",\n       \"      <td>2000.000000</td>\\n\",\n       \"      <td>0.557</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-34421</th>\\n\",\n       \"      <td>32.090909</td>\\n\",\n       \"      <td>153.400904</td>\\n\",\n       \"      <td>198.636364</td>\\n\",\n       \"      <td>15.909091</td>\\n\",\n       \"      <td>77.395291</td>\\n\",\n       \"      <td>665.302727</td>\\n\",\n       \"      <td>60.703844</td>\\n\",\n       \"      <td>187.354545</td>\\n\",\n       \"      <td>95.454545</td>\\n\",\n       \"      <td>93.636364</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.124</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>284.8</td>\\n\",\n       \"      <td>317.500000</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-5960</th>\\n\",\n       \"      <td>20.000000</td>\\n\",\n       \"      <td>160.620852</td>\\n\",\n       \"      <td>211.900000</td>\\n\",\n       \"      <td>18.620000</td>\\n\",\n       \"      <td>45.425691</td>\\n\",\n       \"      <td>983.014000</td>\\n\",\n       \"      <td>60.763625</td>\\n\",\n       \"      <td>928.149258</td>\\n\",\n       \"      <td>112.000000</td>\\n\",\n       \"      <td>106.100000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.115</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>339.5</td>\\n\",\n       \"      <td>317.500000</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1198997</th>\\n\",\n       \"      <td>8.666667</td>\\n\",\n       \"      <td>113.537506</td>\\n\",\n       \"      <td>184.500000</td>\\n\",\n       \"      <td>12.416667</td>\\n\",\n       \"      <td>17.514401</td>\\n\",\n       \"      <td>1861.737333</td>\\n\",\n       \"      <td>42.328311</td>\\n\",\n       \"      <td>48.066667</td>\\n\",\n       \"      <td>74.166667</td>\\n\",\n       \"      <td>75.166667</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.711</td>\\n\",\n       \"      <td>0.02583</td>\\n\",\n       \"      <td>147.0</td>\\n\",\n       \"      <td>146.0</td>\\n\",\n       \"      <td>171.0</td>\\n\",\n       \"      <td>336.4</td>\\n\",\n       \"      <td>317.500000</td>\\n\",\n       \"      <td>0.557</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1219422</th>\\n\",\n       \"      <td>24.600000</td>\\n\",\n       \"      <td>155.100000</td>\\n\",\n       \"      <td>253.400000</td>\\n\",\n       \"      <td>14.430000</td>\\n\",\n       \"      <td>53.945614</td>\\n\",\n       \"      <td>2435.600000</td>\\n\",\n       \"      <td>46.500000</td>\\n\",\n       \"      <td>1177.000000</td>\\n\",\n       \"      <td>154.700000</td>\\n\",\n       \"      <td>139.900000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>4.0</td>\\n\",\n       \"      <td>0.328</td>\\n\",\n       \"      <td>16.00000</td>\\n\",\n       \"      <td>185.0</td>\\n\",\n       \"      <td>188.0</td>\\n\",\n       \"      <td>236.0</td>\\n\",\n       \"      <td>329.5</td>\\n\",\n       \"      <td>3638.678266</td>\\n\",\n       \"      <td>4.310</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-757593</th>\\n\",\n       \"      <td>13.363636</td>\\n\",\n       \"      <td>143.564411</td>\\n\",\n       \"      <td>194.909091</td>\\n\",\n       \"      <td>12.377273</td>\\n\",\n       \"      <td>28.916999</td>\\n\",\n       \"      <td>1053.540000</td>\\n\",\n       \"      <td>86.330568</td>\\n\",\n       \"      <td>393.154545</td>\\n\",\n       \"      <td>96.954545</td>\\n\",\n       \"      <td>90.136364</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.205</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>245.1</td>\\n\",\n       \"      <td>317.500000</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1245874</th>\\n\",\n       \"      <td>10.000000</td>\\n\",\n       \"      <td>122.272727</td>\\n\",\n       \"      <td>210.909091</td>\\n\",\n       \"      <td>17.272727</td>\\n\",\n       \"      <td>20.245364</td>\\n\",\n       \"      <td>1586.454545</td>\\n\",\n       \"      <td>117.984038</td>\\n\",\n       \"      <td>646.918182</td>\\n\",\n       \"      <td>103.181818</td>\\n\",\n       \"      <td>102.090909</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.653</td>\\n\",\n       \"      <td>0.02583</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>166.0</td>\\n\",\n       \"      <td>193.0</td>\\n\",\n       \"      <td>339.9</td>\\n\",\n       \"      <td>333.600000</td>\\n\",\n       \"      <td>1.100</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>10158 rows × 232 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-1077980          46.857143         158.428571              238.714286   \\n\",\n       \"mp-30079            14.750000         153.000000              233.500000   \\n\",\n       \"mvc-2967            25.083333         157.534162              206.416667   \\n\",\n       \"mp-1202279          20.333333         158.349076              193.166667   \\n\",\n       \"mp-34421            32.090909         153.400904              198.636364   \\n\",\n       \"...                       ...                ...                     ...   \\n\",\n       \"mp-5960             20.000000         160.620852              211.900000   \\n\",\n       \"mp-1198997           8.666667         113.537506              184.500000   \\n\",\n       \"mp-1219422          24.600000         155.100000              253.400000   \\n\",\n       \"mp-757593           13.363636         143.564411              194.909091   \\n\",\n       \"mp-1245874          10.000000         122.272727              210.909091   \\n\",\n       \"\\n\",\n       \"            ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-1077980          15.957143         108.944686        2201.857143   \\n\",\n       \"mp-30079            13.675000          32.045000        1736.787500   \\n\",\n       \"mvc-2967            17.283333          58.559750        1018.944167   \\n\",\n       \"mp-1202279          22.066667          46.670374         725.840000   \\n\",\n       \"mp-34421            15.909091          77.395291         665.302727   \\n\",\n       \"...                       ...                ...                ...   \\n\",\n       \"mp-5960             18.620000          45.425691         983.014000   \\n\",\n       \"mp-1198997          12.416667          17.514401        1861.737333   \\n\",\n       \"mp-1219422          14.430000          53.945614        2435.600000   \\n\",\n       \"mp-757593           12.377273          28.916999        1053.540000   \\n\",\n       \"mp-1245874          17.272727          20.245364        1586.454545   \\n\",\n       \"\\n\",\n       \"            ave:bulk_modulus    ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-1077980         79.497211   800.285714                   150.428571   \\n\",\n       \"mp-30079           49.384485   758.250000                   132.500000   \\n\",\n       \"mvc-2967           77.911857  1066.825000                   110.083333   \\n\",\n       \"mp-1202279         38.382626  1038.466667                   103.833333   \\n\",\n       \"mp-34421           60.703844   187.354545                    95.454545   \\n\",\n       \"...                      ...          ...                          ...   \\n\",\n       \"mp-5960            60.763625   928.149258                   112.000000   \\n\",\n       \"mp-1198997         42.328311    48.066667                    74.166667   \\n\",\n       \"mp-1219422         46.500000  1177.000000                   154.700000   \\n\",\n       \"mp-757593          86.330568   393.154545                    96.954545   \\n\",\n       \"mp-1245874        117.984038   646.918182                   103.181818   \\n\",\n       \"\\n\",\n       \"            ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"mp-1077980                  139.571429  ...                1.0         5.0   \\n\",\n       \"mp-30079                    133.000000  ...                1.0         2.0   \\n\",\n       \"mvc-2967                    100.750000  ...                2.0         2.0   \\n\",\n       \"mp-1202279                  103.000000  ...                1.0         2.0   \\n\",\n       \"mp-34421                     93.636364  ...                2.0         2.0   \\n\",\n       \"...                                ...  ...                ...         ...   \\n\",\n       \"mp-5960                     106.100000  ...                2.0         2.0   \\n\",\n       \"mp-1198997                   75.166667  ...                2.0         2.0   \\n\",\n       \"mp-1219422                  139.900000  ...                2.0         4.0   \\n\",\n       \"mp-757593                    90.136364  ...                1.0         2.0   \\n\",\n       \"mp-1245874                  102.090909  ...                2.0         2.0   \\n\",\n       \"\\n\",\n       \"            min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"mp-1077980              0.205                  24.00000           206.0   \\n\",\n       \"mp-30079                0.322                  60.00000           173.0   \\n\",\n       \"mvc-2967                0.128                   0.02658           152.0   \\n\",\n       \"mp-1202279              0.164                   0.02770           147.0   \\n\",\n       \"mp-34421                0.124                   0.02658           152.0   \\n\",\n       \"...                       ...                       ...             ...   \\n\",\n       \"mp-5960                 0.115                   0.02658           152.0   \\n\",\n       \"mp-1198997              0.711                   0.02583           147.0   \\n\",\n       \"mp-1219422              0.328                  16.00000           185.0   \\n\",\n       \"mp-757593               0.205                   0.02658           152.0   \\n\",\n       \"mp-1245874              0.653                   0.02583           155.0   \\n\",\n       \"\\n\",\n       \"            min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"mp-1077980                   247.0               243.0               314.8   \\n\",\n       \"mp-30079                     212.0               243.0               245.1   \\n\",\n       \"mvc-2967                     150.0               182.0               291.2   \\n\",\n       \"mp-1202279                   146.0               171.0               336.4   \\n\",\n       \"mp-34421                     150.0               182.0               284.8   \\n\",\n       \"...                            ...                 ...                 ...   \\n\",\n       \"mp-5960                      150.0               182.0               339.5   \\n\",\n       \"mp-1198997                   146.0               171.0               336.4   \\n\",\n       \"mp-1219422                   188.0               236.0               329.5   \\n\",\n       \"mp-757593                    150.0               182.0               245.1   \\n\",\n       \"mp-1245874                   166.0               193.0               339.9   \\n\",\n       \"\\n\",\n       \"            min:sound_velocity  min:Polarizability  \\n\",\n       \"mp-1077980         2600.000000               6.600  \\n\",\n       \"mp-30079           4602.000000               5.840  \\n\",\n       \"mvc-2967            317.500000               0.802  \\n\",\n       \"mp-1202279         2000.000000               0.557  \\n\",\n       \"mp-34421            317.500000               0.802  \\n\",\n       \"...                        ...                 ...  \\n\",\n       \"mp-5960             317.500000               0.802  \\n\",\n       \"mp-1198997          317.500000               0.557  \\n\",\n       \"mp-1219422         3638.678266               4.310  \\n\",\n       \"mp-757593           317.500000               0.802  \\n\",\n       \"mp-1245874          333.600000               1.100  \\n\",\n       \"\\n\",\n       \"[10158 rows x 232 columns]\"\n      ]\n     },\n     \"execution_count\": 5,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"desc = compositions.fit_transform(training_data.composition)\\n\",\n    \"\\n\",\n    \"desc\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### Train the model\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"In [our paper](https://onlinelibrary.wiley.com/doi/full/10.1002/adma.202102507), we performed a grid searching to find the best hyperparameters of the random forest classifier. For simplicity as a demonstration, we use the already optimized hyperparameters.\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"```python\\n\",\n    \"param_grid = dict(\\n\",\n    \"    random_state=[0],\\n\",\n    \"    max_depth=[5, 10, 15, 20, 25],\\n\",\n    \"    n_estimators=[50, 100, 200, 300],\\n\",\n    \"    max_features=['sqrt', 'log2', None],\\n\",\n    \"    bootstrap=[True, False],\\n\",\n    \"    criterion=[\\\"gini\\\", \\\"entropy\\\"]\\n\",\n    \")\\n\",\n    \"```\\n\",\n    \"\\n\",\n    \"Best parameters:\\n\",\n    \"```python\\n\",\n    \"hyperparams = dict(\\n\",\n    \"    random_state=0,\\n\",\n    \"    max_depth=25,\\n\",\n    \"    n_estimators=200,\\n\",\n    \"    max_features='log2',\\n\",\n    \"    bootstrap=False,\\n\",\n    \"    criterion=\\\"entropy\\\",\\n\",\n    \")\\n\",\n    \"```\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"In order to evaluate the model performance, we split the entire dataset into `train` and `test` datasets. We assigned the flag `for_test` to the data to indicate which samples were used for testing in the model construction process in the previous work. While you can use this flag to reproduce our work, here we would like to show you the standard procedure on how to learn the model.\\n\",\n    \"\\n\",\n    \"There are lots of choices to do this work, here we use the `xenonpy.datatools.Splitter` class.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"\\u001b[0;31mInit signature:\\u001b[0m\\n\",\n       \"\\u001b[0mSplitter\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0msize\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m*\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mtest_size\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mfloat\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mint\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;36m0.2\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mk_fold\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mIterable\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mrandom_state\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mshuffle\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mbool\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mTrue\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n       \"\\u001b[0;31mDocstring:\\u001b[0m      Data splitter for train and test\\n\",\n       \"\\u001b[0;31mInit docstring:\\u001b[0m\\n\",\n       \"Parameters\\n\",\n       \"----------\\n\",\n       \"size\\n\",\n       \"    Total sample size.\\n\",\n       \"    All data must have same length of their first dim,\\n\",\n       \"test_size\\n\",\n       \"    If float, should be between ``0.0`` and ``1.0`` and represent the proportion\\n\",\n       \"    of the dataset to include in the test split. If int, represents the\\n\",\n       \"    absolute number of test samples. Can be ``0`` if cv is ``None``.\\n\",\n       \"    In this case, :meth:`~Splitter.cv` will yield a tuple only contains ``training`` and ``validation``\\n\",\n       \"    on each step. By default, the value is set to 0.2.\\n\",\n       \"k_fold\\n\",\n       \"    Number of k-folds.\\n\",\n       \"    If ``int``, Must be at least 2.\\n\",\n       \"    If ``Iterable``, it should provide label for each element which will be used for group cv.\\n\",\n       \"    In this case, the input of :meth:`~Splitter.cv` must be a :class:`pandas.DataFrame` object.\\n\",\n       \"    Default value is None to specify no cv.\\n\",\n       \"random_state\\n\",\n       \"    If int, random_state is the seed used by the random number generator;\\n\",\n       \"    Default is None.\\n\",\n       \"shuffle\\n\",\n       \"    Whether or not to shuffle the data before splitting.\\n\",\n       \"\\u001b[0;31mFile:\\u001b[0m           ~/mambaforge/envs/xepy38/lib/python3.8/site-packages/xenonpy/datatools/splitter.py\\n\",\n       \"\\u001b[0;31mType:\\u001b[0m           type\\n\",\n       \"\\u001b[0;31mSubclasses:\\u001b[0m     \\n\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.datatools import Splitter\\n\",\n    \"\\n\",\n    \"Splitter?\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<style>#sk-container-id-1 {color: black;background-color: white;}#sk-container-id-1 pre{padding: 0;}#sk-container-id-1 div.sk-toggleable {background-color: white;}#sk-container-id-1 label.sk-toggleable__label {cursor: pointer;display: block;width: 100%;margin-bottom: 0;padding: 0.3em;box-sizing: border-box;text-align: center;}#sk-container-id-1 label.sk-toggleable__label-arrow:before {content: \\\"▸\\\";float: left;margin-right: 0.25em;color: #696969;}#sk-container-id-1 label.sk-toggleable__label-arrow:hover:before {color: black;}#sk-container-id-1 div.sk-estimator:hover label.sk-toggleable__label-arrow:before {color: black;}#sk-container-id-1 div.sk-toggleable__content {max-height: 0;max-width: 0;overflow: hidden;text-align: left;background-color: #f0f8ff;}#sk-container-id-1 div.sk-toggleable__content pre {margin: 0.2em;color: black;border-radius: 0.25em;background-color: #f0f8ff;}#sk-container-id-1 input.sk-toggleable__control:checked~div.sk-toggleable__content {max-height: 200px;max-width: 100%;overflow: auto;}#sk-container-id-1 input.sk-toggleable__control:checked~label.sk-toggleable__label-arrow:before {content: \\\"▾\\\";}#sk-container-id-1 div.sk-estimator input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-1 div.sk-label input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-1 input.sk-hidden--visually {border: 0;clip: rect(1px 1px 1px 1px);clip: rect(1px, 1px, 1px, 1px);height: 1px;margin: -1px;overflow: hidden;padding: 0;position: absolute;width: 1px;}#sk-container-id-1 div.sk-estimator {font-family: monospace;background-color: #f0f8ff;border: 1px dotted black;border-radius: 0.25em;box-sizing: border-box;margin-bottom: 0.5em;}#sk-container-id-1 div.sk-estimator:hover {background-color: #d4ebff;}#sk-container-id-1 div.sk-parallel-item::after {content: \\\"\\\";width: 100%;border-bottom: 1px solid gray;flex-grow: 1;}#sk-container-id-1 div.sk-label:hover label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-1 div.sk-serial::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: 0;}#sk-container-id-1 div.sk-serial {display: flex;flex-direction: column;align-items: center;background-color: white;padding-right: 0.2em;padding-left: 0.2em;position: relative;}#sk-container-id-1 div.sk-item {position: relative;z-index: 1;}#sk-container-id-1 div.sk-parallel {display: flex;align-items: stretch;justify-content: center;background-color: white;position: relative;}#sk-container-id-1 div.sk-item::before, #sk-container-id-1 div.sk-parallel-item::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: -1;}#sk-container-id-1 div.sk-parallel-item {display: flex;flex-direction: column;z-index: 1;position: relative;background-color: white;}#sk-container-id-1 div.sk-parallel-item:first-child::after {align-self: flex-end;width: 50%;}#sk-container-id-1 div.sk-parallel-item:last-child::after {align-self: flex-start;width: 50%;}#sk-container-id-1 div.sk-parallel-item:only-child::after {width: 0;}#sk-container-id-1 div.sk-dashed-wrapped {border: 1px dashed gray;margin: 0 0.4em 0.5em 0.4em;box-sizing: border-box;padding-bottom: 0.4em;background-color: white;}#sk-container-id-1 div.sk-label label {font-family: monospace;font-weight: bold;display: inline-block;line-height: 1.2em;}#sk-container-id-1 div.sk-label-container {text-align: center;}#sk-container-id-1 div.sk-container {/* jupyter's `normalize.less` sets `[hidden] { display: none; }` but bootstrap.min.css set `[hidden] { display: none !important; }` so we also need the `!important` here to be able to override the default hidden behavior on the sphinx rendered scikit-learn.org. See: https://github.com/scikit-learn/scikit-learn/issues/21755 */display: inline-block !important;position: relative;}#sk-container-id-1 div.sk-text-repr-fallback {display: none;}</style><div id=\\\"sk-container-id-1\\\" class=\\\"sk-top-container\\\"><div class=\\\"sk-text-repr-fallback\\\"><pre>Splitter(random_state=0, size=10158)</pre><b>In a Jupyter environment, please rerun this cell to show the HTML representation or trust the notebook. <br />On GitHub, the HTML representation is unable to render, please try loading this page with nbviewer.org.</b></div><div class=\\\"sk-container\\\" hidden><div class=\\\"sk-item\\\"><div class=\\\"sk-estimator sk-toggleable\\\"><input class=\\\"sk-toggleable__control sk-hidden--visually\\\" id=\\\"sk-estimator-id-1\\\" type=\\\"checkbox\\\" checked><label for=\\\"sk-estimator-id-1\\\" class=\\\"sk-toggleable__label sk-toggleable__label-arrow\\\">Splitter</label><div class=\\\"sk-toggleable__content\\\"><pre>Splitter(random_state=0, size=10158)</pre></div></div></div></div></div>\"\n      ],\n      \"text/plain\": [\n       \"Splitter(random_state=0, size=10158)\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"splitter = Splitter(size=desc.shape[0], random_state=0, test_size=0.2)\\n\",\n    \"splitter\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(8126, 232)\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(8126,)\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(2032, 232)\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(2032,)\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"x_train, x_test, y_train, y_test = splitter.split(desc, training_data.label)\\n\",\n    \"\\n\",\n    \"x_train.shape\\n\",\n    \"y_train.shape\\n\",\n    \"x_test.shape\\n\",\n    \"y_test.shape\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Use [scikit-learn random forest classifier](https://scikit-learn.org/stable/modules/generated/sklearn.ensemble.RandomForestClassifier.html#sklearn-ensemble-randomforestclassifier) to train the model\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<style>#sk-container-id-2 {color: black;background-color: white;}#sk-container-id-2 pre{padding: 0;}#sk-container-id-2 div.sk-toggleable {background-color: white;}#sk-container-id-2 label.sk-toggleable__label {cursor: pointer;display: block;width: 100%;margin-bottom: 0;padding: 0.3em;box-sizing: border-box;text-align: center;}#sk-container-id-2 label.sk-toggleable__label-arrow:before {content: \\\"▸\\\";float: left;margin-right: 0.25em;color: #696969;}#sk-container-id-2 label.sk-toggleable__label-arrow:hover:before {color: black;}#sk-container-id-2 div.sk-estimator:hover label.sk-toggleable__label-arrow:before {color: black;}#sk-container-id-2 div.sk-toggleable__content {max-height: 0;max-width: 0;overflow: hidden;text-align: left;background-color: #f0f8ff;}#sk-container-id-2 div.sk-toggleable__content pre {margin: 0.2em;color: black;border-radius: 0.25em;background-color: #f0f8ff;}#sk-container-id-2 input.sk-toggleable__control:checked~div.sk-toggleable__content {max-height: 200px;max-width: 100%;overflow: auto;}#sk-container-id-2 input.sk-toggleable__control:checked~label.sk-toggleable__label-arrow:before {content: \\\"▾\\\";}#sk-container-id-2 div.sk-estimator input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-2 div.sk-label input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-2 input.sk-hidden--visually {border: 0;clip: rect(1px 1px 1px 1px);clip: rect(1px, 1px, 1px, 1px);height: 1px;margin: -1px;overflow: hidden;padding: 0;position: absolute;width: 1px;}#sk-container-id-2 div.sk-estimator {font-family: monospace;background-color: #f0f8ff;border: 1px dotted black;border-radius: 0.25em;box-sizing: border-box;margin-bottom: 0.5em;}#sk-container-id-2 div.sk-estimator:hover {background-color: #d4ebff;}#sk-container-id-2 div.sk-parallel-item::after {content: \\\"\\\";width: 100%;border-bottom: 1px solid gray;flex-grow: 1;}#sk-container-id-2 div.sk-label:hover label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-2 div.sk-serial::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: 0;}#sk-container-id-2 div.sk-serial {display: flex;flex-direction: column;align-items: center;background-color: white;padding-right: 0.2em;padding-left: 0.2em;position: relative;}#sk-container-id-2 div.sk-item {position: relative;z-index: 1;}#sk-container-id-2 div.sk-parallel {display: flex;align-items: stretch;justify-content: center;background-color: white;position: relative;}#sk-container-id-2 div.sk-item::before, #sk-container-id-2 div.sk-parallel-item::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: -1;}#sk-container-id-2 div.sk-parallel-item {display: flex;flex-direction: column;z-index: 1;position: relative;background-color: white;}#sk-container-id-2 div.sk-parallel-item:first-child::after {align-self: flex-end;width: 50%;}#sk-container-id-2 div.sk-parallel-item:last-child::after {align-self: flex-start;width: 50%;}#sk-container-id-2 div.sk-parallel-item:only-child::after {width: 0;}#sk-container-id-2 div.sk-dashed-wrapped {border: 1px dashed gray;margin: 0 0.4em 0.5em 0.4em;box-sizing: border-box;padding-bottom: 0.4em;background-color: white;}#sk-container-id-2 div.sk-label label {font-family: monospace;font-weight: bold;display: inline-block;line-height: 1.2em;}#sk-container-id-2 div.sk-label-container {text-align: center;}#sk-container-id-2 div.sk-container {/* jupyter's `normalize.less` sets `[hidden] { display: none; }` but bootstrap.min.css set `[hidden] { display: none !important; }` so we also need the `!important` here to be able to override the default hidden behavior on the sphinx rendered scikit-learn.org. See: https://github.com/scikit-learn/scikit-learn/issues/21755 */display: inline-block !important;position: relative;}#sk-container-id-2 div.sk-text-repr-fallback {display: none;}</style><div id=\\\"sk-container-id-2\\\" class=\\\"sk-top-container\\\"><div class=\\\"sk-text-repr-fallback\\\"><pre>RandomForestClassifier(bootstrap=False, criterion=&#x27;entropy&#x27;, max_depth=25,\\n\",\n       \"                       max_features=&#x27;log2&#x27;, n_estimators=200, random_state=0)</pre><b>In a Jupyter environment, please rerun this cell to show the HTML representation or trust the notebook. <br />On GitHub, the HTML representation is unable to render, please try loading this page with nbviewer.org.</b></div><div class=\\\"sk-container\\\" hidden><div class=\\\"sk-item\\\"><div class=\\\"sk-estimator sk-toggleable\\\"><input class=\\\"sk-toggleable__control sk-hidden--visually\\\" id=\\\"sk-estimator-id-2\\\" type=\\\"checkbox\\\" checked><label for=\\\"sk-estimator-id-2\\\" class=\\\"sk-toggleable__label sk-toggleable__label-arrow\\\">RandomForestClassifier</label><div class=\\\"sk-toggleable__content\\\"><pre>RandomForestClassifier(bootstrap=False, criterion=&#x27;entropy&#x27;, max_depth=25,\\n\",\n       \"                       max_features=&#x27;log2&#x27;, n_estimators=200, random_state=0)</pre></div></div></div></div></div>\"\n      ],\n      \"text/plain\": [\n       \"RandomForestClassifier(bootstrap=False, criterion='entropy', max_depth=25,\\n\",\n       \"                       max_features='log2', n_estimators=200, random_state=0)\"\n      ]\n     },\n     \"execution_count\": 9,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from sklearn.ensemble import RandomForestClassifier\\n\",\n    \"\\n\",\n    \"# prepare the random forest class\\n\",\n    \"rfc = RandomForestClassifier(\\n\",\n    \"    random_state=0,\\n\",\n    \"    max_depth=25,\\n\",\n    \"    n_estimators=200,\\n\",\n    \"    max_features='log2',\\n\",\n    \"    bootstrap=False,\\n\",\n    \"    criterion=\\\"entropy\\\",\\n\",\n    \")\\n\",\n    \"\\n\",\n    \"rfc\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<style>#sk-container-id-3 {color: black;background-color: white;}#sk-container-id-3 pre{padding: 0;}#sk-container-id-3 div.sk-toggleable {background-color: white;}#sk-container-id-3 label.sk-toggleable__label {cursor: pointer;display: block;width: 100%;margin-bottom: 0;padding: 0.3em;box-sizing: border-box;text-align: center;}#sk-container-id-3 label.sk-toggleable__label-arrow:before {content: \\\"▸\\\";float: left;margin-right: 0.25em;color: #696969;}#sk-container-id-3 label.sk-toggleable__label-arrow:hover:before {color: black;}#sk-container-id-3 div.sk-estimator:hover label.sk-toggleable__label-arrow:before {color: black;}#sk-container-id-3 div.sk-toggleable__content {max-height: 0;max-width: 0;overflow: hidden;text-align: left;background-color: #f0f8ff;}#sk-container-id-3 div.sk-toggleable__content pre {margin: 0.2em;color: black;border-radius: 0.25em;background-color: #f0f8ff;}#sk-container-id-3 input.sk-toggleable__control:checked~div.sk-toggleable__content {max-height: 200px;max-width: 100%;overflow: auto;}#sk-container-id-3 input.sk-toggleable__control:checked~label.sk-toggleable__label-arrow:before {content: \\\"▾\\\";}#sk-container-id-3 div.sk-estimator input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-3 div.sk-label input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-3 input.sk-hidden--visually {border: 0;clip: rect(1px 1px 1px 1px);clip: rect(1px, 1px, 1px, 1px);height: 1px;margin: -1px;overflow: hidden;padding: 0;position: absolute;width: 1px;}#sk-container-id-3 div.sk-estimator {font-family: monospace;background-color: #f0f8ff;border: 1px dotted black;border-radius: 0.25em;box-sizing: border-box;margin-bottom: 0.5em;}#sk-container-id-3 div.sk-estimator:hover {background-color: #d4ebff;}#sk-container-id-3 div.sk-parallel-item::after {content: \\\"\\\";width: 100%;border-bottom: 1px solid gray;flex-grow: 1;}#sk-container-id-3 div.sk-label:hover label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-3 div.sk-serial::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: 0;}#sk-container-id-3 div.sk-serial {display: flex;flex-direction: column;align-items: center;background-color: white;padding-right: 0.2em;padding-left: 0.2em;position: relative;}#sk-container-id-3 div.sk-item {position: relative;z-index: 1;}#sk-container-id-3 div.sk-parallel {display: flex;align-items: stretch;justify-content: center;background-color: white;position: relative;}#sk-container-id-3 div.sk-item::before, #sk-container-id-3 div.sk-parallel-item::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: -1;}#sk-container-id-3 div.sk-parallel-item {display: flex;flex-direction: column;z-index: 1;position: relative;background-color: white;}#sk-container-id-3 div.sk-parallel-item:first-child::after {align-self: flex-end;width: 50%;}#sk-container-id-3 div.sk-parallel-item:last-child::after {align-self: flex-start;width: 50%;}#sk-container-id-3 div.sk-parallel-item:only-child::after {width: 0;}#sk-container-id-3 div.sk-dashed-wrapped {border: 1px dashed gray;margin: 0 0.4em 0.5em 0.4em;box-sizing: border-box;padding-bottom: 0.4em;background-color: white;}#sk-container-id-3 div.sk-label label {font-family: monospace;font-weight: bold;display: inline-block;line-height: 1.2em;}#sk-container-id-3 div.sk-label-container {text-align: center;}#sk-container-id-3 div.sk-container {/* jupyter's `normalize.less` sets `[hidden] { display: none; }` but bootstrap.min.css set `[hidden] { display: none !important; }` so we also need the `!important` here to be able to override the default hidden behavior on the sphinx rendered scikit-learn.org. See: https://github.com/scikit-learn/scikit-learn/issues/21755 */display: inline-block !important;position: relative;}#sk-container-id-3 div.sk-text-repr-fallback {display: none;}</style><div id=\\\"sk-container-id-3\\\" class=\\\"sk-top-container\\\"><div class=\\\"sk-text-repr-fallback\\\"><pre>RandomForestClassifier(bootstrap=False, criterion=&#x27;entropy&#x27;, max_depth=25,\\n\",\n       \"                       max_features=&#x27;log2&#x27;, n_estimators=200, random_state=0)</pre><b>In a Jupyter environment, please rerun this cell to show the HTML representation or trust the notebook. <br />On GitHub, the HTML representation is unable to render, please try loading this page with nbviewer.org.</b></div><div class=\\\"sk-container\\\" hidden><div class=\\\"sk-item\\\"><div class=\\\"sk-estimator sk-toggleable\\\"><input class=\\\"sk-toggleable__control sk-hidden--visually\\\" id=\\\"sk-estimator-id-3\\\" type=\\\"checkbox\\\" checked><label for=\\\"sk-estimator-id-3\\\" class=\\\"sk-toggleable__label sk-toggleable__label-arrow\\\">RandomForestClassifier</label><div class=\\\"sk-toggleable__content\\\"><pre>RandomForestClassifier(bootstrap=False, criterion=&#x27;entropy&#x27;, max_depth=25,\\n\",\n       \"                       max_features=&#x27;log2&#x27;, n_estimators=200, random_state=0)</pre></div></div></div></div></div>\"\n      ],\n      \"text/plain\": [\n       \"RandomForestClassifier(bootstrap=False, criterion='entropy', max_depth=25,\\n\",\n       \"                       max_features='log2', n_estimators=200, random_state=0)\"\n      ]\n     },\n     \"execution_count\": 10,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# train the model with training data\\n\",\n    \"rfc.fit(x_train, y_train)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Predict the class label of training and test data\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"y_pred, y_true = rfc.predict(x_test), y_test\\n\",\n    \"y_pred_fit, y_true_fit = rfc.predict(x_train), y_train\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### confusion matrix\\n\",\n    \"\\n\",\n    \"The confusion matrix is a common measure used to summarize the predicted results of a classification task. For more information, see [here](https://scikit-learn.org/stable/modules/model_evaluation.html#confusion-matrix).\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Testing CM:\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"array([[1993,    1,    1],\\n\",\n       \"       [   3,    8,    3],\\n\",\n       \"       [   5,    5,   13]])\"\n      ]\n     },\n     \"execution_count\": 12,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"\\n\",\n      \"Training CM:\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"array([[8005,    0,    0],\\n\",\n       \"       [   0,   66,    0],\\n\",\n       \"       [   0,    0,   55]])\"\n      ]\n     },\n     \"execution_count\": 12,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# import a library for evaluating the model performance based on confusion matrix\\n\",\n    \"from sklearn.metrics import confusion_matrix\\n\",\n    \"\\n\",\n    \"labels = ['OTHERS', 'QC', 'AC']\\n\",\n    \"cm = confusion_matrix(y_true, y_pred, labels=labels)\\n\",\n    \"cm_fit = confusion_matrix(y_true_fit, y_pred_fit, labels=labels)\\n\",\n    \"\\n\",\n    \"print('Testing CM:')\\n\",\n    \"cm\\n\",\n    \"\\n\",\n    \"print('\\\\nTraining CM:')\\n\",\n    \"cm_fit\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 13,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 2250x750 with 4 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# plot the results\\n\",\n    \"fig, (ax1, ax2) = plt.subplots(1, 2, figsize=(15, 5), dpi=150)\\n\",\n    \"cm = cm / cm.sum(axis=1, keepdims=True)\\n\",\n    \"cmd = ConfusionMatrixDisplay(cm, labels)\\n\",\n    \"_ = cmd.plot(\\n\",\n    \"    cmap=plt.cm.Blues, \\n\",\n    \"    ax=ax1)\\n\",\n    \"_ = ax1.set_title(\\\"Normalized confusion matrix\\\")\\n\",\n    \"\\n\",\n    \"cmd = ConfusionMatrixDisplay(cm, labels)\\n\",\n    \"_ = cmd.plot(\\n\",\n    \"    cmap=plt.cm.Blues, \\n\",\n    \"    ax=ax2)\\n\",\n    \"_ = ax2.set_title(\\\"Without normalize\\\")\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Finally, save the model for further use.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"['pre_trained_model/classification_model_with_taining_data.pkl.z']\"\n      ]\n     },\n     \"execution_count\": 14,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"import joblib\\n\",\n    \"\\n\",\n    \"Path('pre_trained_model/').mkdir(exist_ok=True, parents=True)\\n\",\n    \"joblib.dump(rfc, 'pre_trained_model/classification_model_with_taining_data.pkl.z')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Virtual screening\\n\",\n    \"\\n\",\n    \"The trained model can be used to predict the structure type (QC, AC, and OTHERS) of any given chemical composition. Here we focus only on ternary systems. In the following, we describe the procedure of virtual screening and its visualization in a ternary phase diagram.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"For the sake of demonstration, we will select a system as a prediction target in which quasicrystals are already known to be present.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>label</th>\\n\",\n       \"      <th>prediction</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Cd 65 Mg 20 Gd 15</th>\\n\",\n       \"      <td>(Cd, Gd, Mg)</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Zn 75 Sc 15 Ag 10</th>\\n\",\n       \"      <td>(Ag, Sc, Zn)</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Zn 58 Mg 40 Lu 2</th>\\n\",\n       \"      <td>(Lu, Mg, Zn)</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Zn 75 Sc 15 Pd 10</th>\\n\",\n       \"      <td>(Pd, Sc, Zn)</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Al 65 Cu 20 Os 15</th>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Zn 76 Mg 17 Hf 7</th>\\n\",\n       \"      <td>(Hf, Mg, Zn)</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Al 70 Pd 20 Re 10</th>\\n\",\n       \"      <td>(Al, Pd, Re)</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>Cd 65 Mg 20 Y 15</th>\\n\",\n       \"      <td>(Cd, Mg, Y)</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"      <td>QC</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                       elements label prediction\\n\",\n       \"Cd 65 Mg 20 Gd 15  (Cd, Gd, Mg)    QC         QC\\n\",\n       \"Zn 75 Sc 15 Ag 10  (Ag, Sc, Zn)    QC         QC\\n\",\n       \"Zn 58 Mg 40 Lu 2   (Lu, Mg, Zn)    QC         QC\\n\",\n       \"Zn 75 Sc 15 Pd 10  (Pd, Sc, Zn)    QC         QC\\n\",\n       \"Al 65 Cu 20 Os 15  (Al, Cu, Os)    QC         QC\\n\",\n       \"Zn 76 Mg 17 Hf 7   (Hf, Mg, Zn)    QC         QC\\n\",\n       \"Al 70 Pd 20 Re 10  (Al, Pd, Re)    QC         QC\\n\",\n       \"Cd 65 Mg 20 Y 15    (Cd, Mg, Y)    QC         QC\"\n      ]\n     },\n     \"execution_count\": 15,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"test_data = training_data.loc[x_test.index].assign(prediction=y_pred).drop(columns=['composition', 'for_test'])\\n\",\n    \"\\n\",\n    \"test_data[(test_data.label == 'QC') & (test_data.prediction == 'QC')]\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Let's draw a predicted phase diagram of the Al-Cu-Os system.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### Virtual composition\\n\",\n    \"\\n\",\n    \"First, a set of virtual chemical compositions covering the entire compositional space of $\\\\mathrm{Al}_a \\\\mathrm{Cu}_b \\\\mathrm{Os}_c$ is generated ($a$, $b$, $c$ denote the composition ratio). The function `make_virtual_compounds` is provided to simplify this step.\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"\\u001b[0;31mSignature:\\u001b[0m\\n\",\n       \"\\u001b[0mmake_virtual_compounds\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m*\\u001b[0m\\u001b[0melements\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0minterval\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;36m0.5\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mpen_size\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;36m10\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mreorder_elements\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;32mTrue\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mmax_proportion\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;36m100\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m**\\u001b[0m\\u001b[0melement_ratio\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n       \"\\u001b[0;31mDocstring:\\u001b[0m <no docstring>\\n\",\n       \"\\u001b[0;31mFile:\\u001b[0m      /tmp/ipykernel_577836/3766468394.py\\n\",\n       \"\\u001b[0;31mType:\\u001b[0m      function\\n\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"make_virtual_compounds?\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 17,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>{'Al': 0.25, 'Cu': 99.75, 'Os': 0.0}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>{'Al': 0.5, 'Cu': 99.5, 'Os': 0.0}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>{'Al': 0.75, 'Cu': 99.25, 'Os': 0.0}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>{'Al': 1.0, 'Cu': 99.0, 'Os': 0.0}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>{'Al': 1.25, 'Cu': 98.75, 'Os': 0.0}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>80593</th>\\n\",\n       \"      <td>{'Al': 0.0, 'Cu': 0.5, 'Os': 99.5}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>80594</th>\\n\",\n       \"      <td>{'Al': 0.25, 'Cu': 0.25, 'Os': 99.5}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>80595</th>\\n\",\n       \"      <td>{'Al': 0.5, 'Cu': 0.0, 'Os': 99.5}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>80596</th>\\n\",\n       \"      <td>{'Al': 0.0, 'Cu': 0.25, 'Os': 99.75}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>80597</th>\\n\",\n       \"      <td>{'Al': 0.25, 'Cu': 0.0, 'Os': 99.75}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>80598 rows × 2 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                composition      elements\\n\",\n       \"0      {'Al': 0.25, 'Cu': 99.75, 'Os': 0.0}  (Al, Cu, Os)\\n\",\n       \"1        {'Al': 0.5, 'Cu': 99.5, 'Os': 0.0}  (Al, Cu, Os)\\n\",\n       \"2      {'Al': 0.75, 'Cu': 99.25, 'Os': 0.0}  (Al, Cu, Os)\\n\",\n       \"3        {'Al': 1.0, 'Cu': 99.0, 'Os': 0.0}  (Al, Cu, Os)\\n\",\n       \"4      {'Al': 1.25, 'Cu': 98.75, 'Os': 0.0}  (Al, Cu, Os)\\n\",\n       \"...                                     ...           ...\\n\",\n       \"80593    {'Al': 0.0, 'Cu': 0.5, 'Os': 99.5}  (Al, Cu, Os)\\n\",\n       \"80594  {'Al': 0.25, 'Cu': 0.25, 'Os': 99.5}  (Al, Cu, Os)\\n\",\n       \"80595    {'Al': 0.5, 'Cu': 0.0, 'Os': 99.5}  (Al, Cu, Os)\\n\",\n       \"80596  {'Al': 0.0, 'Cu': 0.25, 'Os': 99.75}  (Al, Cu, Os)\\n\",\n       \"80597  {'Al': 0.25, 'Cu': 0.0, 'Os': 99.75}  (Al, Cu, Os)\\n\",\n       \"\\n\",\n       \"[80598 rows x 2 columns]\"\n      ]\n     },\n     \"execution_count\": 17,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"target = ('Al', 'Cu', 'Os')\\n\",\n    \"\\n\",\n    \"v_comps = make_virtual_compounds(*target, reorder_elements=False, interval=0.25, max_proportion=100)\\n\",\n    \"v_comps\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### Calculate the descriptors of candidate compositions and predict their class labels\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 17.3 s, sys: 849 ms, total: 18.2 s\\n\",\n      \"Wall time: 18.1 s\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(80598, 232)\"\n      ]\n     },\n     \"execution_count\": 18,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"v_desc = compositions.fit_transform(v_comps)\\n\",\n    \"v_desc.shape\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 19,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>AC</th>\\n\",\n       \"      <th>OTHERS</th>\\n\",\n       \"      <th>QC</th>\\n\",\n       \"      <th>pred_label</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>0</th>\\n\",\n       \"      <td>{'Al': 0.25, 'Cu': 99.75, 'Os': 0.0}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"      <td>0.060</td>\\n\",\n       \"      <td>0.870</td>\\n\",\n       \"      <td>0.070</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>1</th>\\n\",\n       \"      <td>{'Al': 0.5, 'Cu': 99.5, 'Os': 0.0}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"      <td>0.060</td>\\n\",\n       \"      <td>0.865</td>\\n\",\n       \"      <td>0.075</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>2</th>\\n\",\n       \"      <td>{'Al': 0.75, 'Cu': 99.25, 'Os': 0.0}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"      <td>0.060</td>\\n\",\n       \"      <td>0.865</td>\\n\",\n       \"      <td>0.075</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>3</th>\\n\",\n       \"      <td>{'Al': 1.0, 'Cu': 99.0, 'Os': 0.0}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"      <td>0.065</td>\\n\",\n       \"      <td>0.860</td>\\n\",\n       \"      <td>0.075</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>4</th>\\n\",\n       \"      <td>{'Al': 1.25, 'Cu': 98.75, 'Os': 0.0}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"      <td>0.070</td>\\n\",\n       \"      <td>0.855</td>\\n\",\n       \"      <td>0.075</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>80593</th>\\n\",\n       \"      <td>{'Al': 0.0, 'Cu': 0.5, 'Os': 99.5}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"      <td>0.015</td>\\n\",\n       \"      <td>0.935</td>\\n\",\n       \"      <td>0.050</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>80594</th>\\n\",\n       \"      <td>{'Al': 0.25, 'Cu': 0.25, 'Os': 99.5}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"      <td>0.015</td>\\n\",\n       \"      <td>0.935</td>\\n\",\n       \"      <td>0.050</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>80595</th>\\n\",\n       \"      <td>{'Al': 0.5, 'Cu': 0.0, 'Os': 99.5}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"      <td>0.020</td>\\n\",\n       \"      <td>0.935</td>\\n\",\n       \"      <td>0.045</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>80596</th>\\n\",\n       \"      <td>{'Al': 0.0, 'Cu': 0.25, 'Os': 99.75}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"      <td>0.015</td>\\n\",\n       \"      <td>0.935</td>\\n\",\n       \"      <td>0.050</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>80597</th>\\n\",\n       \"      <td>{'Al': 0.25, 'Cu': 0.0, 'Os': 99.75}</td>\\n\",\n       \"      <td>(Al, Cu, Os)</td>\\n\",\n       \"      <td>0.015</td>\\n\",\n       \"      <td>0.935</td>\\n\",\n       \"      <td>0.050</td>\\n\",\n       \"      <td>OTHERS</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>80598 rows × 6 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                composition      elements     AC  OTHERS  \\\\\\n\",\n       \"0      {'Al': 0.25, 'Cu': 99.75, 'Os': 0.0}  (Al, Cu, Os)  0.060   0.870   \\n\",\n       \"1        {'Al': 0.5, 'Cu': 99.5, 'Os': 0.0}  (Al, Cu, Os)  0.060   0.865   \\n\",\n       \"2      {'Al': 0.75, 'Cu': 99.25, 'Os': 0.0}  (Al, Cu, Os)  0.060   0.865   \\n\",\n       \"3        {'Al': 1.0, 'Cu': 99.0, 'Os': 0.0}  (Al, Cu, Os)  0.065   0.860   \\n\",\n       \"4      {'Al': 1.25, 'Cu': 98.75, 'Os': 0.0}  (Al, Cu, Os)  0.070   0.855   \\n\",\n       \"...                                     ...           ...    ...     ...   \\n\",\n       \"80593    {'Al': 0.0, 'Cu': 0.5, 'Os': 99.5}  (Al, Cu, Os)  0.015   0.935   \\n\",\n       \"80594  {'Al': 0.25, 'Cu': 0.25, 'Os': 99.5}  (Al, Cu, Os)  0.015   0.935   \\n\",\n       \"80595    {'Al': 0.5, 'Cu': 0.0, 'Os': 99.5}  (Al, Cu, Os)  0.020   0.935   \\n\",\n       \"80596  {'Al': 0.0, 'Cu': 0.25, 'Os': 99.75}  (Al, Cu, Os)  0.015   0.935   \\n\",\n       \"80597  {'Al': 0.25, 'Cu': 0.0, 'Os': 99.75}  (Al, Cu, Os)  0.015   0.935   \\n\",\n       \"\\n\",\n       \"          QC pred_label  \\n\",\n       \"0      0.070     OTHERS  \\n\",\n       \"1      0.075     OTHERS  \\n\",\n       \"2      0.075     OTHERS  \\n\",\n       \"3      0.075     OTHERS  \\n\",\n       \"4      0.075     OTHERS  \\n\",\n       \"...      ...        ...  \\n\",\n       \"80593  0.050     OTHERS  \\n\",\n       \"80594  0.050     OTHERS  \\n\",\n       \"80595  0.045     OTHERS  \\n\",\n       \"80596  0.050     OTHERS  \\n\",\n       \"80597  0.050     OTHERS  \\n\",\n       \"\\n\",\n       \"[80598 rows x 6 columns]\"\n      ]\n     },\n     \"execution_count\": 19,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"pred_proba = pd.DataFrame(rfc.predict_proba(v_desc), columns=rfc.classes_)\\n\",\n    \"pred_labels = pred_proba.assign(pred_label=rfc.predict(v_desc))\\n\",\n    \"pred_results = pd.concat([v_comps, pred_labels], axis=1)\\n\",\n    \"pred_results\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### Draw a phase diagram\\n\",\n    \"\\n\",\n    \"Here, we generate a phase diagram to visualize the predicted structure types (`QC`, `AC`, and `OTHERS`) in the ternary system.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 20,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"labels = ['OTHERS', 'QC', 'AC']\\n\",\n    \"k_folds = 10\\n\",\n    \"cmap = 'YlGnBu'\\n\",\n    \"n = 1\\n\",\n    \"criteria = 'mae'\\n\",\n    \"epa_color = 'orangered'\\n\",\n    \"pe_color = 'aqua'\\n\",\n    \"\\n\",\n    \"norm = matplotlib.colors.BoundaryNorm(np.linspace(-1.5, 1.5, 4), 3)\\n\",\n    \"fmt = matplotlib.ticker.FuncFormatter(lambda x, _: ['OTHERS', 'AC', 'QC'][norm(x)])\\n\",\n    \"\\n\",\n    \"def trans(s):\\n\",\n    \"    if s == 'QC': return 1.5\\n\",\n    \"    if s == 'AC': return 0\\n\",\n    \"    if s == 'OTHERS': return -1.5\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 21,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\",\n      \"text/plain\": [\n       \"<Figure size 1400x1000 with 8 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# set overall style\\n\",\n    \"sns.set_context(\\\"notebook\\\", font_scale=1.5, rc={\\\"lines.linewidth\\\": 2.5, \\\"axes.labelsize\\\": \\\"large\\\"})\\n\",\n    \"\\n\",\n    \"a, b, c = target\\n\",\n    \"tmp = pd.DataFrame([{k: v for k, v in s.items()} for s in pred_results.composition], index=pred_results.index)\\n\",\n    \"\\n\",\n    \"fig, ((ax1, ax2), (ax3, ax4)) = plt.subplots(2, 2, figsize=(14, 10), dpi=100)\\n\",\n    \"\\n\",\n    \"# all class\\n\",\n    \"plot_tri(\\n\",\n    \"    tmp[a].values * n,\\n\",\n    \"    tmp[b].values * n,\\n\",\n    \"    tmp[c].values * n,\\n\",\n    \"    pred_results.pred_label.apply(trans).values,\\n\",\n    \"    a, b, c,\\n\",\n    \"    cbar_kw=dict(\\n\",\n    \"     format=fmt,\\n\",\n    \"     ticks=np.arange(-1, 2)\\n\",\n    \"    ),\\n\",\n    \"    cmap=plt.get_cmap(cmap, 3),\\n\",\n    \"    norm=norm,\\n\",\n    \"    half_size=False,\\n\",\n    \"    reduce_ticks=True,\\n\",\n    \"    ax=ax1\\n\",\n    \")\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"# QC\\n\",\n    \"plot_tri(\\n\",\n    \"    tmp[a].values * n,\\n\",\n    \"    tmp[b].values * n,\\n\",\n    \"    tmp[c].values * n,\\n\",\n    \"    pred_results.QC,\\n\",\n    \"    a, b, c,\\n\",\n    \"    cbarlabel='QC',\\n\",\n    \"    cmap=cmap,\\n\",\n    \"    percentage=True,\\n\",\n    \"    half_size=False,\\n\",\n    \"    reduce_ticks=True,\\n\",\n    \"    ax=ax2\\n\",\n    \")\\n\",\n    \"\\n\",\n    \"# AC\\n\",\n    \"plot_tri(\\n\",\n    \"    tmp[a].values * n,\\n\",\n    \"    tmp[b].values * n,\\n\",\n    \"    tmp[c].values * n,\\n\",\n    \"    pred_results.AC,\\n\",\n    \"    a, b, c,\\n\",\n    \"    cbarlabel='AC',\\n\",\n    \"    cmap=cmap,\\n\",\n    \"    percentage=True,\\n\",\n    \"    half_size=False,\\n\",\n    \"    reduce_ticks=True,\\n\",\n    \"    ax=ax3\\n\",\n    \")\\n\",\n    \"\\n\",\n    \"# OTHERS\\n\",\n    \"plot_tri(\\n\",\n    \"    tmp[a].values * n,\\n\",\n    \"    tmp[b].values * n,\\n\",\n    \"    tmp[c].values * n,\\n\",\n    \"    pred_results.OTHERS,\\n\",\n    \"    a, b, c,\\n\",\n    \"    cbarlabel='OTHERS',\\n\",\n    \"    cmap=cmap,\\n\",\n    \"    percentage=True,\\n\",\n    \"    half_size=False,\\n\",\n    \"    reduce_ticks=True,\\n\",\n    \"    ax=ax4\\n\",\n    \")\\n\",\n    \"\\n\",\n    \"# save figure\\n\",\n    \"Path('phase_diagram/').mkdir(exist_ok=True, parents=True)\\n\",\n    \"plt.savefig(f\\\"phase_diagram/{'_'.join(target)}.png\\\", bbox_inches='tight', pad_inches=0, dpi=300)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Retrain a model with all data\\n\",\n    \"\\n\",\n    \"Finally, we retrain the model using the optimized hyperparameters with all data and save it.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 22,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<style>#sk-container-id-4 {color: black;background-color: white;}#sk-container-id-4 pre{padding: 0;}#sk-container-id-4 div.sk-toggleable {background-color: white;}#sk-container-id-4 label.sk-toggleable__label {cursor: pointer;display: block;width: 100%;margin-bottom: 0;padding: 0.3em;box-sizing: border-box;text-align: center;}#sk-container-id-4 label.sk-toggleable__label-arrow:before {content: \\\"▸\\\";float: left;margin-right: 0.25em;color: #696969;}#sk-container-id-4 label.sk-toggleable__label-arrow:hover:before {color: black;}#sk-container-id-4 div.sk-estimator:hover label.sk-toggleable__label-arrow:before {color: black;}#sk-container-id-4 div.sk-toggleable__content {max-height: 0;max-width: 0;overflow: hidden;text-align: left;background-color: #f0f8ff;}#sk-container-id-4 div.sk-toggleable__content pre {margin: 0.2em;color: black;border-radius: 0.25em;background-color: #f0f8ff;}#sk-container-id-4 input.sk-toggleable__control:checked~div.sk-toggleable__content {max-height: 200px;max-width: 100%;overflow: auto;}#sk-container-id-4 input.sk-toggleable__control:checked~label.sk-toggleable__label-arrow:before {content: \\\"▾\\\";}#sk-container-id-4 div.sk-estimator input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-4 div.sk-label input.sk-toggleable__control:checked~label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-4 input.sk-hidden--visually {border: 0;clip: rect(1px 1px 1px 1px);clip: rect(1px, 1px, 1px, 1px);height: 1px;margin: -1px;overflow: hidden;padding: 0;position: absolute;width: 1px;}#sk-container-id-4 div.sk-estimator {font-family: monospace;background-color: #f0f8ff;border: 1px dotted black;border-radius: 0.25em;box-sizing: border-box;margin-bottom: 0.5em;}#sk-container-id-4 div.sk-estimator:hover {background-color: #d4ebff;}#sk-container-id-4 div.sk-parallel-item::after {content: \\\"\\\";width: 100%;border-bottom: 1px solid gray;flex-grow: 1;}#sk-container-id-4 div.sk-label:hover label.sk-toggleable__label {background-color: #d4ebff;}#sk-container-id-4 div.sk-serial::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: 0;}#sk-container-id-4 div.sk-serial {display: flex;flex-direction: column;align-items: center;background-color: white;padding-right: 0.2em;padding-left: 0.2em;position: relative;}#sk-container-id-4 div.sk-item {position: relative;z-index: 1;}#sk-container-id-4 div.sk-parallel {display: flex;align-items: stretch;justify-content: center;background-color: white;position: relative;}#sk-container-id-4 div.sk-item::before, #sk-container-id-4 div.sk-parallel-item::before {content: \\\"\\\";position: absolute;border-left: 1px solid gray;box-sizing: border-box;top: 0;bottom: 0;left: 50%;z-index: -1;}#sk-container-id-4 div.sk-parallel-item {display: flex;flex-direction: column;z-index: 1;position: relative;background-color: white;}#sk-container-id-4 div.sk-parallel-item:first-child::after {align-self: flex-end;width: 50%;}#sk-container-id-4 div.sk-parallel-item:last-child::after {align-self: flex-start;width: 50%;}#sk-container-id-4 div.sk-parallel-item:only-child::after {width: 0;}#sk-container-id-4 div.sk-dashed-wrapped {border: 1px dashed gray;margin: 0 0.4em 0.5em 0.4em;box-sizing: border-box;padding-bottom: 0.4em;background-color: white;}#sk-container-id-4 div.sk-label label {font-family: monospace;font-weight: bold;display: inline-block;line-height: 1.2em;}#sk-container-id-4 div.sk-label-container {text-align: center;}#sk-container-id-4 div.sk-container {/* jupyter's `normalize.less` sets `[hidden] { display: none; }` but bootstrap.min.css set `[hidden] { display: none !important; }` so we also need the `!important` here to be able to override the default hidden behavior on the sphinx rendered scikit-learn.org. See: https://github.com/scikit-learn/scikit-learn/issues/21755 */display: inline-block !important;position: relative;}#sk-container-id-4 div.sk-text-repr-fallback {display: none;}</style><div id=\\\"sk-container-id-4\\\" class=\\\"sk-top-container\\\"><div class=\\\"sk-text-repr-fallback\\\"><pre>RandomForestClassifier(bootstrap=False, criterion=&#x27;entropy&#x27;, max_depth=25,\\n\",\n       \"                       max_features=&#x27;log2&#x27;, n_estimators=200, random_state=0)</pre><b>In a Jupyter environment, please rerun this cell to show the HTML representation or trust the notebook. <br />On GitHub, the HTML representation is unable to render, please try loading this page with nbviewer.org.</b></div><div class=\\\"sk-container\\\" hidden><div class=\\\"sk-item\\\"><div class=\\\"sk-estimator sk-toggleable\\\"><input class=\\\"sk-toggleable__control sk-hidden--visually\\\" id=\\\"sk-estimator-id-4\\\" type=\\\"checkbox\\\" checked><label for=\\\"sk-estimator-id-4\\\" class=\\\"sk-toggleable__label sk-toggleable__label-arrow\\\">RandomForestClassifier</label><div class=\\\"sk-toggleable__content\\\"><pre>RandomForestClassifier(bootstrap=False, criterion=&#x27;entropy&#x27;, max_depth=25,\\n\",\n       \"                       max_features=&#x27;log2&#x27;, n_estimators=200, random_state=0)</pre></div></div></div></div></div>\"\n      ],\n      \"text/plain\": [\n       \"RandomForestClassifier(bootstrap=False, criterion='entropy', max_depth=25,\\n\",\n       \"                       max_features='log2', n_estimators=200, random_state=0)\"\n      ]\n     },\n     \"execution_count\": 22,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# prepare the random forest class\\n\",\n    \"rfc = RandomForestClassifier(\\n\",\n    \"    random_state=0,\\n\",\n    \"    max_depth=25,\\n\",\n    \"    n_estimators=200,\\n\",\n    \"    max_features='log2',\\n\",\n    \"    bootstrap=False,\\n\",\n    \"    criterion=\\\"entropy\\\",\\n\",\n    \")\\n\",\n    \"\\n\",\n    \"rfc.fit(desc, training_data.label)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 23,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"['pre_trained_model/classification_model_with_all_data_training.pkl.z']\"\n      ]\n     },\n     \"execution_count\": 23,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"joblib.dump(rfc, 'pre_trained_model/classification_model_with_all_data_training.pkl.z')\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3.9.6 ('avalon')\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.9.6\"\n  },\n  \"vscode\": {\n   \"interpreter\": {\n    \"hash\": \"3e3c6009f759c7b6322bb34d4b09bf3ae54292a31a37602d74e0556d4d94cebc\"\n   }\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "samples/predict_hypermaterials/tools.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# Tools\\n\",\n    \"\\n\",\n    \"This file provides the helper functions to simplify the demonstration.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import numpy as np\\n\",\n    \"import matplotlib.pyplot as plt\\n\",\n    \"\\n\",\n    \"from matplotlib.ticker import FormatStrFormatter, PercentFormatter\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 34,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def transform_xy(x, y, z=None):\\n\",\n    \"    if z is None:\\n\",\n    \"        z = 100 - x - y\\n\",\n    \"    h = np.sqrt(3) * 0.5\\n\",\n    \"    x_ = (z / 100) + (x / 100) / 2\\n\",\n    \"    y_ = (x / 100) * h\\n\",\n    \"    \\n\",\n    \"    return x_, y_\\n\",\n    \"\\n\",\n    \"def transform_xy_halfsize(x, y, z=None):\\n\",\n    \"    if z is None:\\n\",\n    \"        z = 100 - x - y\\n\",\n    \"    h = np.sqrt(3) * 0.5\\n\",\n    \"    x_ = (z / 100) * 2 + (x / 100) * 2 / 2 - 0.5\\n\",\n    \"    y_ = (x / 100) * 2 * h - h\\n\",\n    \"    \\n\",\n    \"    xy = np.stack([x_, y_])\\n\",\n    \"    idx = (xy >= 0).all(axis=0)\\n\",\n    \"    xy = xy[..., idx]\\n\",\n    \"    \\n\",\n    \"    return xy[0], xy[1], idx\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"def plot_tri(x,y,z,d, label_x,label_y,label_z, *additional_points, show_cbar=True, cbarlabel=None, percentage=False, reduce_ticks=False, ax=None, half_size=False, cbar_kw={}, **kwargs):\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"    \\n\",\n    \"    if not ax:\\n\",\n    \"        fig, ax = plt.subplots(dpi=150)\\n\",\n    \"    else:\\n\",\n    \"        fig = ax.get_figure()\\n\",\n    \"        \\n\",\n    \"    l = len(d)\\n\",\n    \"    ax.set_aspect('equal', 'datalim')\\n\",\n    \"    ax.tick_params(labelbottom=False, labelleft=False, labelright=False, labeltop=False)\\n\",\n    \"    ax.tick_params(bottom=False, left=False, right=False, top=False)\\n\",\n    \"    ax.spines['bottom'].set_visible(False)\\n\",\n    \"    ax.spines['left'].set_visible(False)\\n\",\n    \"    ax.spines['right'].set_visible(False)\\n\",\n    \"    ax.spines['top'].set_visible(False)\\n\",\n    \"    h = np.sqrt(3.0)*0.5\\n\",\n    \"\\n\",\n    \"    # outer-triangle\\n\",\n    \"    ax.plot([0.0, 1.0],[0.0, 0.0], 'k-', lw=2)\\n\",\n    \"    ax.plot([0.0, 0.5],[0.0, h], 'k-', lw=2)\\n\",\n    \"    ax.plot([1.0, 0.5],[0.0, h], 'k-', lw=2)\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"    # inner axis\\n\",\n    \"    for i in range(1,10):\\n\",\n    \"        ax.plot([i/20.0, 1.0-i/20.0],[h*i/10.0, h*i/10.0], color='gray', lw=0.5,ls=\\\"-\\\")\\n\",\n    \"        ax.plot([1.0-i/20.0-0.025, 1.0-i/20.0],[h*i/10.0, h*i/10.0], color='black', lw=2,ls=\\\"-\\\")\\n\",\n    \"\\n\",\n    \"        ax.plot([i/20.0, i/10.0],[h*i/10.0, 0.0], color='gray', lw=0.5)\\n\",\n    \"        ax.plot([i/20.0, i/20+0.05/4],[h*i/10.0, h*i/10-h/10*0.25], color='black', lw=2)\\n\",\n    \"\\n\",\n    \"        ax.plot([0.5+i/20.0, i/10.0],[h*(1.0-i/10.0), 0.0], color='gray', lw=0.5)\\n\",\n    \"        ax.plot([i/10.0+0.025/2, i/10.0],[h/40, 0.0], color='black', lw=2)\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"    # vertex labels\\n\",\n    \"    ax.text(0.75+0.25/2+0.01, h/2, label_x, fontsize='xx-large', rotation=0)#x\\n\",\n    \"    ax.text(0.25/2-0.13, h/2, label_y, fontsize='xx-large')#y\\n\",\n    \"    ax.text(0.5-0.05, -0.17, label_z, fontsize='xx-large', rotation=0)#z\\n\",\n    \"\\n\",\n    \"    # axis labels\\n\",\n    \"    step = 2 if reduce_ticks else 1\\n\",\n    \"    interval = 5 if half_size else 10\\n\",\n    \"    shift = 50 if half_size else 0\\n\",\n    \"    for i in range(0,11, step):\\n\",\n    \"        r = i*interval\\n\",\n    \"        ax.text((10-i)/20.0-0.01, h*(10-i)/10.0, '%d' % r, fontsize='medium', rotation=0,horizontalalignment='right') #x\\n\",\n    \"        ax.text(0.5+(10-i)/20.0+0.01, h*(1.0-(10-i)/10.0), '%d' % (r + shift), fontsize='medium',horizontalalignment='left')#y\\n\",\n    \"        ax.text(i/10.0-0.03, -0.07, '%d' % r, fontsize='medium', rotation=0) #z\\n\",\n    \"        \\n\",\n    \"    if half_size:\\n\",\n    \"        X, Y, idx = transform_xy_halfsize(x,y,z)\\n\",\n    \"        d = d[idx]\\n\",\n    \"    else:\\n\",\n    \"        X, Y = transform_xy(x, y, z)\\n\",\n    \"\\n\",\n    \"    sca = ax.scatter(X, Y, c=d, s=5, alpha=0.8, **kwargs)\\n\",\n    \"    \\n\",\n    \"    for fn in additional_points:\\n\",\n    \"        fn(ax)\\n\",\n    \"\\n\",\n    \"    # show colorbar\\n\",\n    \"    if show_cbar:\\n\",\n    \"        cbar = ax.figure.colorbar(sca, ax=ax, **cbar_kw)\\n\",\n    \"        if percentage:\\n\",\n    \"            cbar.ax.yaxis.set_major_formatter(PercentFormatter(1))\\n\",\n    \"        if cbarlabel is not None:\\n\",\n    \"            cbar.ax.set_ylabel(cbarlabel, rotation=-90, va=\\\"bottom\\\", fontsize='x-large')\\n\",\n    \"\\n\",\n    \"    fig.tight_layout()\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from itertools import product\\n\",\n    \"\\n\",\n    \"class ConfusionMatrixDisplay:\\n\",\n    \"    def __init__(self, confusion_matrix, display_labels):\\n\",\n    \"        self.confusion_matrix = confusion_matrix\\n\",\n    \"        self.display_labels = display_labels\\n\",\n    \"\\n\",\n    \"    def plot(self, *, include_values=True, cmap='viridis',\\n\",\n    \"             xticks_rotation='horizontal', values_format=None, ax=None, anno_fontsize=14, tick_fontsize=14, label_fontsize=20):\\n\",\n    \"\\n\",\n    \"        if ax is None:\\n\",\n    \"            fig, ax = plt.subplots()\\n\",\n    \"        else:\\n\",\n    \"            fig = ax.figure\\n\",\n    \"\\n\",\n    \"        cm = self.confusion_matrix\\n\",\n    \"        n_classes = cm.shape[0]\\n\",\n    \"        self.im_ = ax.imshow(cm, interpolation='nearest', cmap=cmap)\\n\",\n    \"        self.text_ = None\\n\",\n    \"\\n\",\n    \"        cmap_min, cmap_max = self.im_.cmap(0), self.im_.cmap(256)\\n\",\n    \"\\n\",\n    \"        if include_values:\\n\",\n    \"            self.text_ = np.empty_like(cm, dtype=object)\\n\",\n    \"            if values_format is None:\\n\",\n    \"                values_format = '.2g'\\n\",\n    \"\\n\",\n    \"            # print text with appropriate color depending on background\\n\",\n    \"            thresh = (cm.max() - cm.min()) / 2.\\n\",\n    \"            for i, j in product(range(n_classes), range(n_classes)):\\n\",\n    \"                color = cmap_max if cm[i, j] < thresh else cmap_min\\n\",\n    \"                self.text_[i, j] = ax.text(j, i,\\n\",\n    \"                                           format(cm[i, j], values_format),\\n\",\n    \"                                           ha=\\\"center\\\", va=\\\"center\\\",\\n\",\n    \"                                           color=color, fontsize=anno_fontsize)\\n\",\n    \"\\n\",\n    \"        cbar = fig.colorbar(self.im_, ax=ax)\\n\",\n    \"        cbar.ax.tick_params(labelsize=anno_fontsize) \\n\",\n    \"        ax.set(xticks=np.arange(n_classes),\\n\",\n    \"               yticks=np.arange(n_classes),\\n\",\n    \"               xticklabels=self.display_labels,\\n\",\n    \"               yticklabels=self.display_labels,\\n\",\n    \"               ylabel=\\\"True label\\\",\\n\",\n    \"               xlabel=\\\"Predicted label\\\")\\n\",\n    \"\\n\",\n    \"        ax.set_ylim((n_classes - 0.5, -0.5))\\n\",\n    \"        plt.setp(ax.get_xticklabels(), rotation=xticks_rotation)\\n\",\n    \"\\n\",\n    \"        ax.xaxis.label.set_size(label_fontsize)\\n\",\n    \"        ax.yaxis.label.set_size(label_fontsize)\\n\",\n    \"        ax.tick_params(labelsize=tick_fontsize)\\n\",\n    \"        \\n\",\n    \"        self.figure_ = fig\\n\",\n    \"        self.ax_ = ax\\n\",\n    \"        return self\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {\n    \"tags\": []\n   },\n   \"outputs\": [],\n   \"source\": [\n    \"def make_virtual_compounds(*elements, interval=0.5, pen_size=10, reorder_elements=True, max_proportion=100, **element_ratio):\\n\",\n    \"    dim = len(elements)\\n\",\n    \"    \\n\",\n    \"    # for list type\\n\",\n    \"    if dim != 0:\\n\",\n    \"        # elements and element_ratio are mutually exclusive\\n\",\n    \"        if len(element_ratio) != 0:\\n\",\n    \"            raise ValueError('elements and element_ratio are mutually exclusive')\\n\",\n    \"\\n\",\n    \"        # sort elements in alphabetical order\\n\",\n    \"        if reorder_elements:\\n\",\n    \"            elements = tuple(sorted(tuple(set(elements))))\\n\",\n    \"        \\n\",\n    \"        # generate mesh\\n\",\n    \"        grid = np.arange(0, 100, interval)\\n\",\n    \"        mesh = np.array(np.meshgrid(*([grid] * dim))).T.reshape(-1, dim)\\n\",\n    \"\\n\",\n    \"    # for dict type\\n\",\n    \"    else:\\n\",\n    \"        if len(element_ratio) == 0:\\n\",\n    \"            return None\\n\",\n    \"\\n\",\n    \"        # sort elements in alphabetical order\\n\",\n    \"        dim = len(element_ratio)\\n\",\n    \"        \\n\",\n    \"        if reorder_elements:\\n\",\n    \"            elements, ratios = zip(*[(k, element_ratio[k]) for k in sorted(element_ratio.keys())])\\n\",\n    \"        else:\\n\",\n    \"            elements, ratios = zip(*element_ratio.items())\\n\",\n    \"        \\n\",\n    \"        # generate mesh\\n\",\n    \"        s = [np.arange(max(r - pen_size, 0), min(r + pen_size, 100), interval) for r in ratios]\\n\",\n    \"        mesh = np.array(np.meshgrid(*s)).T.reshape(-1, dim)\\n\",\n    \"    \\n\",\n    \"    # select the only ratios have sum equal to 100\\n\",\n    \"    mesh = mesh[mesh.sum(1) == 100]\\n\",\n    \"    \\n\",\n    \"    if max_proportion < 100:\\n\",\n    \"        mesh = mesh[mesh[..., 0] >= max_proportion]\\n\",\n    \"\\n\",\n    \"    # return as pandas.DataFrame\\n\",\n    \"    comps = [{e:f for e, f in zip(elements, frac_compositon) } for frac_compositon in mesh]\\n\",\n    \"    return pd.DataFrame({'composition': comps, 'elements': [elements] * mesh.shape[0]})\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3.9.6 ('avalon')\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.9.6\"\n  },\n  \"vscode\": {\n   \"interpreter\": {\n    \"hash\": \"3e3c6009f759c7b6322bb34d4b09bf3ae54292a31a37602d74e0556d4d94cebc\"\n   }\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "samples/predict_hypermaterials/training_data.csv",
    "content": ",composition,elements,label,for_test\nmp-1077980,\"{'Sr': 1.0, 'Ag': 4.0, 'Sb': 2.0}\",\"('Ag', 'Sb', 'Sr')\",OTHERS,False\nmp-30079,\"{'Li': 1.0, 'Mg': 2.0, 'Ge': 1.0}\",\"('Ge', 'Li', 'Mg')\",OTHERS,False\nmvc-2967,\"{'Ba': 2.0, 'Tl': 1.0, 'Fe': 2.0, 'O': 7.0}\",\"('Ba', 'Fe', 'O', 'Tl')\",OTHERS,False\nmp-1202279,\"{'K': 18.0, 'Ho': 18.0, 'F': 72.0}\",\"('F', 'Ho', 'K')\",OTHERS,False\nmp-34421,\"{'Bi': 3.0, 'Cd': 1.0, 'O': 7.0}\",\"('Bi', 'Cd', 'O')\",OTHERS,False\nmp-976583,\"{'K': 6.0, 'Co': 2.0}\",\"('Co', 'K')\",OTHERS,False\nmp-626550,\"{'Ti': 6.0, 'H': 4.0, 'O': 14.0}\",\"('H', 'O', 'Ti')\",OTHERS,False\nmp-555012,\"{'La': 24.0, 'S': 16.0, 'N': 12.0, 'Cl': 4.0}\",\"('Cl', 'La', 'N', 'S')\",OTHERS,False\nmp-755743,\"{'Li': 4.0, 'Ti': 2.0, 'Cr': 2.0, 'O': 8.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-766253,\"{'La': 2.0, 'Th': 11.0, 'O': 26.0}\",\"('La', 'O', 'Th')\",OTHERS,False\nmp-753335,\"{'Li': 4.0, 'V': 4.0, 'F': 14.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1176451,\"{'Mn': 5.0, 'V': 1.0, 'O': 12.0}\",\"('Mn', 'O', 'V')\",OTHERS,False\nmp-21893,\"{'Mn': 4.0, 'Te': 8.0}\",\"('Mn', 'Te')\",OTHERS,False\nmp-568695,\"{'Ca': 3.0, 'Cd': 3.0, 'Sn': 3.0}\",\"('Ca', 'Cd', 'Sn')\",OTHERS,False\nmp-753169,\"{'Mn': 4.0, 'F': 10.0}\",\"('F', 'Mn')\",OTHERS,False\nmp-1040366,\"{'K': 1.0, 'Li': 1.0, 'Mg': 30.0, 'O': 31.0}\",\"('K', 'Li', 'Mg', 'O')\",OTHERS,False\nmp-1208310,\"{'Tb': 4.0, 'Si': 4.0, 'Pd': 8.0}\",\"('Pd', 'Si', 'Tb')\",OTHERS,False\nmp-1215696,\"{'Zn': 2.0, 'In': 1.0, 'Cu': 1.0, 'S': 4.0}\",\"('Cu', 'In', 'S', 'Zn')\",OTHERS,False\nmp-1187611,\"{'Tm': 1.0, 'Lu': 1.0, 'Ag': 2.0}\",\"('Ag', 'Lu', 'Tm')\",OTHERS,False\nmp-1194239,\"{'Pu': 4.0, 'Si': 2.0, 'O': 20.0}\",\"('O', 'Pu', 'Si')\",OTHERS,False\nmp-1097220,\"{'Sc': 2.0, 'Zn': 1.0, 'Hg': 1.0}\",\"('Hg', 'Sc', 'Zn')\",OTHERS,False\nmp-1096426,\"{'Cs': 1.0, 'Na': 2.0, 'Bi': 1.0}\",\"('Bi', 'Cs', 'Na')\",OTHERS,False\nmp-19725,\"{'Fe': 6.0, 'Ge': 6.0, 'Hf': 1.0}\",\"('Fe', 'Ge', 'Hf')\",OTHERS,False\nmvc-9863,\"{'La': 2.0, 'Ti': 2.0, 'Zn': 2.0, 'Cr': 2.0, 'O': 12.0}\",\"('Cr', 'La', 'O', 'Ti', 'Zn')\",OTHERS,False\nmp-1112161,\"{'Cs': 2.0, 'Rb': 1.0, 'Bi': 1.0, 'I': 6.0}\",\"('Bi', 'Cs', 'I', 'Rb')\",OTHERS,False\nmp-1245490,\"{'Ba': 8.0, 'V': 2.0, 'N': 8.0}\",\"('Ba', 'N', 'V')\",OTHERS,False\nmp-559407,\"{'Na': 3.0, 'Gd': 3.0, 'H': 6.0, 'S': 6.0, 'O': 27.0}\",\"('Gd', 'H', 'Na', 'O', 'S')\",OTHERS,False\nmp-1207970,\"{'Tm': 10.0, 'Bi': 2.0, 'Pt': 4.0}\",\"('Bi', 'Pt', 'Tm')\",OTHERS,False\nmp-1246472,\"{'Mg': 2.0, 'In': 1.0, 'Mo': 3.0, 'S': 8.0}\",\"('In', 'Mg', 'Mo', 'S')\",OTHERS,False\nmp-571474,\"{'Sm': 8.0, 'Sn': 6.0}\",\"('Sm', 'Sn')\",OTHERS,False\nmp-1016058,\"{'Cr': 4.0, 'N': 8.0}\",\"('Cr', 'N')\",OTHERS,False\nmp-772720,\"{'Cr': 12.0, 'Co': 8.0, 'O': 48.0}\",\"('Co', 'Cr', 'O')\",OTHERS,False\nmp-1039782,\"{'Na': 1.0, 'Mg': 30.0, 'W': 1.0, 'O': 32.0}\",\"('Mg', 'Na', 'O', 'W')\",OTHERS,False\nmp-1198768,\"{'Ca': 4.0, 'Si': 4.0, 'B': 4.0, 'O': 20.0}\",\"('B', 'Ca', 'O', 'Si')\",OTHERS,False\nmp-675857,\"{'Cd': 4.0, 'Sn': 2.0, 'O': 8.0}\",\"('Cd', 'O', 'Sn')\",OTHERS,False\nmvc-16729,\"{'Y': 2.0, 'Mn': 4.0, 'S': 8.0}\",\"('Mn', 'S', 'Y')\",OTHERS,False\nmp-5808,\"{'Rb': 1.0, 'Te': 2.0, 'Nd': 1.0}\",\"('Nd', 'Rb', 'Te')\",OTHERS,False\nmp-677726,\"{'Al': 12.0, 'Si': 12.0, 'Ag': 16.0, 'S': 5.0, 'O': 48.0}\",\"('Ag', 'Al', 'O', 'S', 'Si')\",OTHERS,False\nmp-1093949,\"{'Ba': 2.0, 'Tl': 1.0, 'Ag': 1.0}\",\"('Ag', 'Ba', 'Tl')\",OTHERS,False\nmp-21604,\"{'S': 24.0, 'In': 4.0, 'Sm': 12.0}\",\"('In', 'S', 'Sm')\",OTHERS,False\nmp-1225810,\"{'Cu': 2.0, 'Si': 1.0, 'Te': 3.0}\",\"('Cu', 'Si', 'Te')\",OTHERS,False\nmp-540651,\"{'Ba': 8.0, 'Mn': 8.0, 'Sn': 8.0, 'S': 32.0}\",\"('Ba', 'Mn', 'S', 'Sn')\",OTHERS,False\nmp-1194912,\"{'Y': 4.0, 'V': 4.0, 'Te': 8.0, 'O': 32.0}\",\"('O', 'Te', 'V', 'Y')\",OTHERS,False\nmp-1176954,\"{'Li': 6.0, 'Nb': 1.0, 'Ni': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'Nb', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1183146,\"{'B': 1.0, 'Au': 3.0}\",\"('Au', 'B')\",OTHERS,False\nmp-16521,\"{'Al': 3.0, 'Os': 2.0}\",\"('Al', 'Os')\",OTHERS,False\nmp-690550,\"{'Co': 14.0, 'Ru': 4.0, 'O': 24.0}\",\"('Co', 'O', 'Ru')\",OTHERS,False\nmp-9201,\"{'K': 4.0, 'Ge': 2.0, 'Au': 7.0}\",\"('Au', 'Ge', 'K')\",OTHERS,False\nmp-1201395,\"{'Tb': 16.0, 'Te': 12.0, 'N': 8.0}\",\"('N', 'Tb', 'Te')\",OTHERS,False\nmp-645338,\"{'Sm': 16.0, 'B': 48.0, 'O': 96.0}\",\"('B', 'O', 'Sm')\",OTHERS,False\nmp-1205720,\"{'Ho': 2.0, 'Mn': 4.0, 'Si': 2.0, 'C': 2.0}\",\"('C', 'Ho', 'Mn', 'Si')\",OTHERS,False\nmp-29507,\"{'O': 26.0, 'V': 6.0, 'Cu': 11.0}\",\"('Cu', 'O', 'V')\",OTHERS,False\nmp-1199783,\"{'Re': 12.0, 'H': 12.0, 'C': 48.0, 'O': 48.0}\",\"('C', 'H', 'O', 'Re')\",OTHERS,False\nmp-1176347,\"{'Na': 10.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Na', 'O', 'P')\",OTHERS,False\nmp-1183114,\"{'Ac': 2.0, 'Cu': 6.0}\",\"('Ac', 'Cu')\",OTHERS,False\nmp-531201,\"{'Cd': 10.0, 'Ho': 20.0, 'Se': 40.0}\",\"('Cd', 'Ho', 'Se')\",OTHERS,False\nmp-766427,\"{'K': 4.0, 'Na': 2.0, 'Zn': 4.0, 'H': 10.0, 'C': 8.0, 'O': 28.0}\",\"('C', 'H', 'K', 'Na', 'O', 'Zn')\",OTHERS,False\nmp-1093703,\"{'Zr': 2.0, 'Zn': 1.0, 'Cd': 1.0}\",\"('Cd', 'Zn', 'Zr')\",OTHERS,False\nmp-1216881,\"{'U': 1.0, 'Al': 9.0, 'Fe': 3.0}\",\"('Al', 'Fe', 'U')\",OTHERS,False\nmp-865403,\"{'Tm': 4.0, 'Mg': 2.0, 'Ge': 4.0}\",\"('Ge', 'Mg', 'Tm')\",OTHERS,False\nmp-28601,\"{'Br': 40.0, 'Nb': 8.0}\",\"('Br', 'Nb')\",OTHERS,False\nmp-1209795,\"{'Pr': 4.0, 'Al': 18.0, 'Ir': 6.0}\",\"('Al', 'Ir', 'Pr')\",OTHERS,False\nmp-571165,\"{'Dy': 8.0, 'Fe': 56.0, 'C': 4.0}\",\"('C', 'Dy', 'Fe')\",OTHERS,False\nmp-8689,\"{'V': 4.0, 'Ge': 1.0, 'Se': 8.0}\",\"('Ge', 'Se', 'V')\",OTHERS,False\nmp-772938,\"{'Li': 4.0, 'Ta': 8.0, 'O': 22.0}\",\"('Li', 'O', 'Ta')\",OTHERS,False\nmp-862621,\"{'Ga': 2.0, 'Pt': 6.0}\",\"('Ga', 'Pt')\",OTHERS,False\nmp-754167,\"{'Mn': 5.0, 'O': 1.0, 'F': 11.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1217987,\"{'Ta': 3.0, 'Co': 2.0, 'Mo': 1.0}\",\"('Co', 'Mo', 'Ta')\",OTHERS,False\nmp-505750,\"{'Rb': 8.0, 'Sn': 16.0, 'Se': 32.0}\",\"('Rb', 'Se', 'Sn')\",OTHERS,False\nmp-1020647,\"{'Sr': 8.0, 'Li': 4.0, 'Be': 4.0, 'B': 12.0, 'O': 32.0}\",\"('B', 'Be', 'Li', 'O', 'Sr')\",OTHERS,False\nmp-1238141,\"{'V': 4.0, 'Ni': 2.0, 'H': 16.0, 'O': 20.0}\",\"('H', 'Ni', 'O', 'V')\",OTHERS,False\nmp-1203000,\"{'Nd': 4.0, 'H': 44.0, 'S': 12.0, 'O': 64.0}\",\"('H', 'Nd', 'O', 'S')\",OTHERS,False\nmp-867847,\"{'La': 2.0, 'Zn': 1.0, 'Ru': 1.0}\",\"('La', 'Ru', 'Zn')\",OTHERS,False\nmp-1196071,\"{'Ba': 28.0, 'Fe': 28.0, 'O': 70.0}\",\"('Ba', 'Fe', 'O')\",OTHERS,False\nmp-30747,\"{'Zn': 22.0, 'Ir': 4.0}\",\"('Ir', 'Zn')\",OTHERS,False\nmp-1190441,\"{'Li': 4.0, 'Sb': 4.0, 'F': 16.0}\",\"('F', 'Li', 'Sb')\",OTHERS,False\nmp-1275,\"{'Si': 2.0, 'Mo': 6.0}\",\"('Mo', 'Si')\",OTHERS,False\nmp-676556,\"{'Sm': 2.0, 'Zr': 8.0, 'O': 19.0}\",\"('O', 'Sm', 'Zr')\",OTHERS,False\nmp-20441,\"{'Mn': 2.0, 'Co': 2.0, 'C': 1.0}\",\"('C', 'Co', 'Mn')\",OTHERS,False\nmp-1187045,\"{'Sn': 3.0, 'Mo': 1.0}\",\"('Mo', 'Sn')\",OTHERS,False\nmp-22401,\"{'Si': 20.0, 'Nd': 8.0, 'Re': 12.0}\",\"('Nd', 'Re', 'Si')\",OTHERS,False\nmp-559537,\"{'Ca': 8.0, 'P': 12.0, 'O': 38.0}\",\"('Ca', 'O', 'P')\",OTHERS,False\nmp-1228000,\"{'Ca': 2.0, 'Mn': 7.0, 'Si': 10.0, 'H': 12.0, 'O': 35.0}\",\"('Ca', 'H', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1207109,\"{'Sm': 1.0, 'Hg': 2.0}\",\"('Hg', 'Sm')\",OTHERS,False\nmp-13498,\"{'Mg': 1.0, 'Tb': 2.0}\",\"('Mg', 'Tb')\",OTHERS,False\nmp-768358,\"{'Sc': 2.0, 'In': 2.0, 'O': 6.0}\",\"('In', 'O', 'Sc')\",OTHERS,False\nmp-753061,\"{'Ti': 1.0, 'Co': 3.0, 'O': 8.0}\",\"('Co', 'O', 'Ti')\",OTHERS,False\nmp-1184981,\"{'Li': 2.0, 'Nd': 1.0, 'Pb': 1.0}\",\"('Li', 'Nd', 'Pb')\",OTHERS,False\nmvc-11754,\"{'V': 4.0, 'S': 10.0}\",\"('S', 'V')\",OTHERS,False\nmp-1096757,\"{'Nb': 1.0, 'Cr': 2.0, 'Re': 1.0}\",\"('Cr', 'Nb', 'Re')\",OTHERS,False\nmp-772337,\"{'Cr': 12.0, 'Cu': 8.0, 'O': 48.0}\",\"('Cr', 'Cu', 'O')\",OTHERS,False\nmp-1218557,\"{'Sr': 6.0, 'Co': 2.0, 'Sb': 4.0, 'O': 18.0}\",\"('Co', 'O', 'Sb', 'Sr')\",OTHERS,False\nmp-1247120,\"{'Cd': 22.0, 'C': 4.0, 'N': 20.0}\",\"('C', 'Cd', 'N')\",OTHERS,False\nmp-868632,\"{'Mn': 2.0, 'O': 2.0, 'F': 2.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1187278,\"{'Tb': 3.0, 'Dy': 1.0}\",\"('Dy', 'Tb')\",OTHERS,False\nmp-772269,\"{'Mn': 6.0, 'P': 6.0, 'O': 24.0}\",\"('Mn', 'O', 'P')\",OTHERS,False\nmp-1073410,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-19858,{'Sr': 6.0},\"('Sr',)\",OTHERS,False\nmp-1211266,\"{'Li': 16.0, 'Mo': 12.0, 'O': 48.0}\",\"('Li', 'Mo', 'O')\",OTHERS,False\nmp-554598,\"{'B': 4.0, 'H': 20.0, 'C': 4.0, 'N': 2.0, 'Cl': 2.0, 'O': 6.0}\",\"('B', 'C', 'Cl', 'H', 'N', 'O')\",OTHERS,False\nmp-1095988,\"{'Sr': 2.0, 'Ag': 1.0, 'Hg': 1.0}\",\"('Ag', 'Hg', 'Sr')\",OTHERS,False\nmp-1064647,\"{'K': 2.0, 'N': 2.0}\",\"('K', 'N')\",OTHERS,False\nmp-1184199,\"{'Eu': 2.0, 'Ag': 1.0, 'Pb': 1.0}\",\"('Ag', 'Eu', 'Pb')\",OTHERS,False\nmp-1213927,\"{'Ce': 12.0, 'P': 4.0, 'Br': 12.0}\",\"('Br', 'Ce', 'P')\",OTHERS,False\nmp-1174745,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1210027,\"{'Rb': 36.0, 'Co': 8.0, 'S': 28.0}\",\"('Co', 'Rb', 'S')\",OTHERS,False\nmp-757597,\"{'Li': 4.0, 'Sn': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1197135,\"{'La': 2.0, 'N': 6.0, 'O': 26.0}\",\"('La', 'N', 'O')\",OTHERS,False\nmp-759865,\"{'Li': 3.0, 'V': 3.0, 'Cr': 3.0, 'P': 6.0, 'H': 6.0, 'O': 30.0}\",\"('Cr', 'H', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1228512,\"{'Ba': 3.0, 'Fe': 4.0, 'P': 8.0, 'Pb': 1.0, 'O': 28.0}\",\"('Ba', 'Fe', 'O', 'P', 'Pb')\",OTHERS,False\nmp-1210921,\"{'Li': 2.0, 'Zn': 8.0, 'Sn': 2.0, 'O': 16.0}\",\"('Li', 'O', 'Sn', 'Zn')\",OTHERS,False\nmp-1232186,\"{'Ce': 8.0, 'Mg': 4.0, 'S': 16.0}\",\"('Ce', 'Mg', 'S')\",OTHERS,False\nmp-1202615,\"{'Ho': 40.0, 'Ir': 8.0, 'Br': 72.0}\",\"('Br', 'Ho', 'Ir')\",OTHERS,False\nmp-12797,\"{'Be': 4.0, 'O': 14.0, 'Si': 4.0, 'Ba': 2.0}\",\"('Ba', 'Be', 'O', 'Si')\",OTHERS,False\nmp-1220054,\"{'Ni': 1.0, 'Rh': 1.0}\",\"('Ni', 'Rh')\",OTHERS,False\nmp-1239257,\"{'Zr': 4.0, 'Cr': 4.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cr', 'Cu', 'S', 'Zr')\",OTHERS,False\nmp-13903,\"{'F': 6.0, 'Zn': 1.0, 'Sn': 1.0}\",\"('F', 'Sn', 'Zn')\",OTHERS,False\nmp-765733,\"{'Mn': 8.0, 'O': 14.0, 'F': 2.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1246065,\"{'Ti': 4.0, 'Mo': 4.0, 'N': 12.0}\",\"('Mo', 'N', 'Ti')\",OTHERS,False\nmp-26035,\"{'Li': 18.0, 'O': 58.0, 'P': 16.0, 'Mn': 6.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-754685,\"{'Li': 4.0, 'Cr': 1.0, 'Fe': 1.0, 'W': 2.0, 'O': 12.0}\",\"('Cr', 'Fe', 'Li', 'O', 'W')\",OTHERS,False\nmp-1200101,\"{'Er': 12.0, 'P': 36.0, 'O': 108.0}\",\"('Er', 'O', 'P')\",OTHERS,False\nmp-23227,\"{'Cu': 2.0, 'Br': 2.0}\",\"('Br', 'Cu')\",OTHERS,False\nmp-1193242,\"{'Cs': 8.0, 'Co': 4.0, 'Cl': 16.0}\",\"('Cl', 'Co', 'Cs')\",OTHERS,False\nmp-1201134,\"{'Cu': 4.0, 'C': 8.0, 'O': 24.0}\",\"('C', 'Cu', 'O')\",OTHERS,False\nmp-864624,\"{'Ho': 1.0, 'Zn': 1.0, 'Rh': 2.0}\",\"('Ho', 'Rh', 'Zn')\",OTHERS,False\nmp-20596,\"{'Si': 2.0, 'Ni': 2.0, 'U': 1.0}\",\"('Ni', 'Si', 'U')\",OTHERS,False\nmp-31352,\"{'O': 18.0, 'Se': 6.0, 'Er': 4.0}\",\"('Er', 'O', 'Se')\",OTHERS,False\nmp-1019524,\"{'Ba': 3.0, 'P': 6.0, 'N': 8.0, 'O': 6.0}\",\"('Ba', 'N', 'O', 'P')\",OTHERS,False\nmp-1221447,\"{'Na': 2.0, 'Al': 1.0, 'Ge': 7.0, 'O': 16.0}\",\"('Al', 'Ge', 'Na', 'O')\",OTHERS,False\nmp-6391,\"{'Na': 4.0, 'Zn': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Na', 'O', 'Si', 'Zn')\",OTHERS,False\nmp-643586,\"{'Cs': 2.0, 'H': 2.0, 'S': 4.0, 'O': 12.0, 'F': 4.0}\",\"('Cs', 'F', 'H', 'O', 'S')\",OTHERS,False\nmp-715438,\"{'Fe': 6.0, 'O': 8.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-754430,\"{'Mn': 7.0, 'O': 12.0}\",\"('Mn', 'O')\",OTHERS,False\nmp-306,\"{'B': 6.0, 'O': 9.0}\",\"('B', 'O')\",OTHERS,False\nmvc-10016,\"{'La': 1.0, 'V': 1.0, 'Cr': 1.0, 'O': 6.0}\",\"('Cr', 'La', 'O', 'V')\",OTHERS,False\nmp-1183975,\"{'Ga': 1.0, 'Ge': 3.0}\",\"('Ga', 'Ge')\",OTHERS,False\nmp-1180190,\"{'Mo': 2.0, 'O': 10.0}\",\"('Mo', 'O')\",OTHERS,False\nmp-1174068,\"{'Li': 6.0, 'Mn': 4.0, 'O': 10.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-756691,\"{'Li': 6.0, 'Co': 1.0, 'Ni': 1.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Co', 'Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-764826,\"{'Li': 24.0, 'Mn': 12.0, 'F': 60.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-771487,\"{'Na': 10.0, 'Mn': 4.0, 'P': 2.0, 'C': 8.0, 'O': 32.0}\",\"('C', 'Mn', 'Na', 'O', 'P')\",OTHERS,False\nmp-1177323,\"{'Li': 4.0, 'Nb': 1.0, 'V': 3.0, 'Cr': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Li', 'Nb', 'O', 'P', 'V')\",OTHERS,False\nmp-1216790,\"{'V': 2.0, 'Mo': 1.0, 'O': 8.0}\",\"('Mo', 'O', 'V')\",OTHERS,False\nmp-1190399,\"{'Na': 4.0, 'Zn': 2.0, 'Ge': 4.0, 'S': 12.0}\",\"('Ge', 'Na', 'S', 'Zn')\",OTHERS,False\nmp-571347,\"{'Pr': 6.0, 'Cu': 2.0, 'Ge': 2.0, 'Se': 14.0}\",\"('Cu', 'Ge', 'Pr', 'Se')\",OTHERS,False\nmp-753420,\"{'Li': 2.0, 'Mn': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-650442,\"{'Tl': 12.0, 'Ag': 4.0, 'Te': 8.0}\",\"('Ag', 'Te', 'Tl')\",OTHERS,False\nmp-756392,\"{'Li': 2.0, 'Cu': 2.0, 'Si': 4.0, 'O': 10.0}\",\"('Cu', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1104788,\"{'Co': 2.0, 'B': 4.0, 'O': 8.0}\",\"('B', 'Co', 'O')\",OTHERS,False\nmp-722571,\"{'Re': 20.0, 'H': 20.0, 'C': 80.0, 'O': 80.0}\",\"('C', 'H', 'O', 'Re')\",OTHERS,False\nmp-567459,\"{'Ag': 4.0, 'C': 8.0, 'N': 12.0}\",\"('Ag', 'C', 'N')\",OTHERS,False\nmp-753624,\"{'Li': 2.0, 'Mn': 2.0, 'P': 2.0, 'O': 8.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-19997,\"{'Ni': 2.0, 'In': 4.0, 'Eu': 2.0}\",\"('Eu', 'In', 'Ni')\",OTHERS,False\nmp-980944,\"{'Yb': 6.0, 'Y': 2.0}\",\"('Y', 'Yb')\",OTHERS,False\nmp-864655,\"{'Pa': 1.0, 'Co': 3.0}\",\"('Co', 'Pa')\",OTHERS,False\nmp-753040,\"{'Li': 1.0, 'Mn': 1.0, 'P': 3.0, 'H': 1.0, 'O': 10.0}\",\"('H', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1239310,\"{'Sr': 4.0, 'Y': 2.0, 'Cr': 2.0, 'Cu': 4.0, 'O': 14.0}\",\"('Cr', 'Cu', 'O', 'Sr', 'Y')\",OTHERS,False\nmp-19237,\"{'O': 4.0, 'Sr': 2.0, 'Mo': 1.0}\",\"('Mo', 'O', 'Sr')\",OTHERS,False\nmp-1174721,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1208970,\"{'Sm': 3.0, 'P': 6.0, 'Pd': 20.0}\",\"('P', 'Pd', 'Sm')\",OTHERS,False\nmp-1196827,\"{'K': 16.0, 'Li': 4.0, 'H': 12.0, 'S': 16.0, 'O': 64.0}\",\"('H', 'K', 'Li', 'O', 'S')\",OTHERS,False\nmp-570286,\"{'Bi': 2.0, 'Se': 2.0}\",\"('Bi', 'Se')\",OTHERS,False\nmp-754127,\"{'Li': 2.0, 'Co': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,False\nmp-662575,\"{'Eu': 2.0, 'Sr': 4.0, 'Ga': 2.0, 'Cu': 4.0, 'O': 14.0}\",\"('Cu', 'Eu', 'Ga', 'O', 'Sr')\",OTHERS,False\nmp-14901,\"{'O': 48.0, 'Na': 12.0, 'Zn': 12.0, 'As': 12.0}\",\"('As', 'Na', 'O', 'Zn')\",OTHERS,False\nmp-568989,\"{'Li': 56.0, 'Ni': 8.0, 'N': 32.0}\",\"('Li', 'N', 'Ni')\",OTHERS,False\nmp-760071,\"{'Li': 10.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1106340,\"{'La': 10.0, 'Mn': 2.0, 'Pb': 6.0}\",\"('La', 'Mn', 'Pb')\",OTHERS,False\nmp-776447,\"{'Li': 4.0, 'Mn': 6.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1244597,\"{'Mg': 4.0, 'Ta': 4.0, 'Bi': 4.0, 'O': 20.0}\",\"('Bi', 'Mg', 'O', 'Ta')\",OTHERS,False\nmp-1199645,\"{'Mn': 8.0, 'As': 8.0, 'O': 36.0}\",\"('As', 'Mn', 'O')\",OTHERS,False\nmp-1184926,\"{'Ho': 1.0, 'Np': 3.0}\",\"('Ho', 'Np')\",OTHERS,False\nmp-1200738,\"{'Pr': 10.0, 'Sn': 20.0, 'Rh': 8.0}\",\"('Pr', 'Rh', 'Sn')\",OTHERS,False\nmp-780653,\"{'Li': 20.0, 'Mn': 2.0, 'Si': 4.0, 'O': 20.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1073360,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-863354,\"{'Co': 2.0, 'Sn': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Co', 'O', 'P', 'Sn')\",OTHERS,False\nmp-755639,\"{'Li': 4.0, 'Mn': 1.0, 'Fe': 3.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1190642,\"{'Er': 2.0, 'Fe': 12.0, 'P': 7.0}\",\"('Er', 'Fe', 'P')\",OTHERS,False\nmp-1200403,\"{'Nb': 8.0, 'Ag': 4.0, 'O': 22.0}\",\"('Ag', 'Nb', 'O')\",OTHERS,False\nmp-30136,\"{'O': 14.0, 'Mo': 4.0, 'Hg': 4.0}\",\"('Hg', 'Mo', 'O')\",OTHERS,False\nmp-1184848,\"{'K': 3.0, 'Mo': 1.0}\",\"('K', 'Mo')\",OTHERS,False\nmp-1210839,\"{'Lu': 4.0, 'Be': 4.0, 'Ge': 2.0, 'O': 14.0}\",\"('Be', 'Ge', 'Lu', 'O')\",OTHERS,False\nmp-1182249,\"{'Fe': 24.0, 'O': 32.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-1103642,\"{'Ag': 1.0, 'Mo': 6.0, 'Se': 8.0}\",\"('Ag', 'Mo', 'Se')\",OTHERS,False\nmp-753891,\"{'Zr': 4.0, 'Ti': 4.0, 'O': 16.0}\",\"('O', 'Ti', 'Zr')\",OTHERS,False\nmp-1195911,\"{'Sr': 2.0, 'Yb': 8.0, 'Si': 10.0, 'O': 34.0}\",\"('O', 'Si', 'Sr', 'Yb')\",OTHERS,False\nmp-560815,\"{'Al': 18.0, 'P': 18.0, 'O': 72.0}\",\"('Al', 'O', 'P')\",OTHERS,False\nmp-26393,\"{'Li': 4.0, 'O': 48.0, 'P': 12.0, 'Mn': 16.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-759338,\"{'Mn': 6.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1203491,\"{'Ho': 12.0, 'In': 4.0, 'S': 24.0}\",\"('Ho', 'In', 'S')\",OTHERS,False\nmp-1193222,\"{'Li': 3.0, 'Mg': 3.0, 'Al': 3.0, 'F': 18.0}\",\"('Al', 'F', 'Li', 'Mg')\",OTHERS,False\nmp-571057,\"{'K': 4.0, 'Y': 4.0, 'P': 8.0, 'Se': 24.0}\",\"('K', 'P', 'Se', 'Y')\",OTHERS,False\nmvc-7568,\"{'Mg': 4.0, 'Ti': 6.0, 'O': 16.0}\",\"('Mg', 'O', 'Ti')\",OTHERS,False\nmp-1219110,\"{'Sm': 2.0, 'Al': 2.0, 'Zn': 2.0}\",\"('Al', 'Sm', 'Zn')\",OTHERS,False\nmp-1025324,\"{'Si': 1.0, 'Sn': 1.0, 'Pt': 5.0}\",\"('Pt', 'Si', 'Sn')\",OTHERS,False\nmp-1229121,\"{'Ag': 1.0, 'Bi': 1.0, 'Pb': 1.0, 'S': 3.0}\",\"('Ag', 'Bi', 'Pb', 'S')\",OTHERS,False\nmp-27513,\"{'Cl': 10.0, 'Sc': 7.0}\",\"('Cl', 'Sc')\",OTHERS,False\nmp-16866,\"{'N': 6.0, 'O': 22.0, 'K': 2.0, 'Np': 2.0}\",\"('K', 'N', 'Np', 'O')\",OTHERS,False\nmp-1208837,\"{'Sr': 1.0, 'In': 2.0, 'Cu': 2.0}\",\"('Cu', 'In', 'Sr')\",OTHERS,False\nmp-1212460,\"{'H': 2.0, 'I': 2.0, 'N': 4.0}\",\"('H', 'I', 'N')\",OTHERS,False\nmp-1101509,\"{'Li': 1.0, 'Mo': 1.0, 'P': 2.0, 'O': 8.0}\",\"('Li', 'Mo', 'O', 'P')\",OTHERS,False\nmp-1182212,\"{'Ca': 16.0, 'Si': 8.0, 'O': 40.0}\",\"('Ca', 'O', 'Si')\",OTHERS,False\nmp-505731,\"{'O': 32.0, 'P': 8.0, 'Co': 4.0, 'Ba': 8.0}\",\"('Ba', 'Co', 'O', 'P')\",OTHERS,False\nmvc-13307,\"{'Y': 2.0, 'Mg': 1.0, 'Mn': 2.0, 'S': 2.0, 'O': 5.0}\",\"('Mg', 'Mn', 'O', 'S', 'Y')\",OTHERS,False\nmp-1219174,\"{'Sm': 1.0, 'Zn': 2.0, 'Ga': 2.0}\",\"('Ga', 'Sm', 'Zn')\",OTHERS,False\nmp-19058,\"{'Ba': 6.0, 'Co': 2.0, 'Ru': 4.0, 'O': 18.0}\",\"('Ba', 'Co', 'O', 'Ru')\",OTHERS,False\nmp-1228920,\"{'Cs': 2.0, 'Fe': 2.0, 'Cu': 2.0, 'F': 12.0}\",\"('Cs', 'Cu', 'F', 'Fe')\",OTHERS,False\nmp-32530,\"{'Li': 12.0, 'V': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1008920,\"{'Mn': 2.0, 'Ge': 1.0}\",\"('Ge', 'Mn')\",OTHERS,False\nmp-27410,\"{'P': 3.0, 'Sn': 4.0}\",\"('P', 'Sn')\",OTHERS,False\nmp-1095969,\"{'Mn': 1.0, 'Nb': 2.0, 'Cr': 1.0}\",\"('Cr', 'Mn', 'Nb')\",OTHERS,False\nmp-1225885,\"{'Cu': 2.0, 'Ni': 1.0, 'Sn': 1.0, 'Se': 4.0}\",\"('Cu', 'Ni', 'Se', 'Sn')\",OTHERS,False\nmp-1247345,\"{'Ba': 6.0, 'Fe': 4.0, 'N': 8.0}\",\"('Ba', 'Fe', 'N')\",OTHERS,False\nmp-21065,\"{'Si': 4.0, 'P': 8.0}\",\"('P', 'Si')\",OTHERS,False\nmp-1103571,\"{'Al': 2.0, 'Si': 2.0, 'O': 11.0}\",\"('Al', 'O', 'Si')\",OTHERS,False\nmp-1095419,\"{'Ta': 4.0, 'Cr': 4.0, 'P': 4.0}\",\"('Cr', 'P', 'Ta')\",OTHERS,False\nmp-7574,\"{'B': 2.0, 'Al': 2.0, 'Mo': 2.0}\",\"('Al', 'B', 'Mo')\",OTHERS,False\nmp-26875,\"{'Li': 8.0, 'O': 16.0, 'P': 4.0, 'Cu': 4.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-1103857,\"{'U': 2.0, 'Mn': 8.0, 'P': 4.0}\",\"('Mn', 'P', 'U')\",OTHERS,False\nmp-1217081,\"{'Ti': 3.0, 'Al': 5.0}\",\"('Al', 'Ti')\",OTHERS,False\nmp-758997,\"{'Li': 3.0, 'Cu': 3.0, 'C': 3.0, 'O': 9.0}\",\"('C', 'Cu', 'Li', 'O')\",OTHERS,False\nmp-1182130,\"{'C': 6.0, 'I': 2.0, 'N': 2.0}\",\"('C', 'I', 'N')\",OTHERS,False\nmp-1226793,\"{'Ce': 4.0, 'Ni': 8.0, 'B': 12.0}\",\"('B', 'Ce', 'Ni')\",OTHERS,False\nmp-542181,\"{'Eu': 2.0, 'K': 6.0, 'V': 4.0, 'O': 16.0}\",\"('Eu', 'K', 'O', 'V')\",OTHERS,False\nmp-864991,\"{'Ca': 2.0, 'Ag': 1.0, 'Pb': 1.0}\",\"('Ag', 'Ca', 'Pb')\",OTHERS,False\nmp-504495,\"{'Na': 4.0, 'Zn': 4.0, 'Mo': 4.0, 'O': 20.0, 'H': 4.0}\",\"('H', 'Mo', 'Na', 'O', 'Zn')\",OTHERS,False\nmp-653559,\"{'P': 16.0, 'Se': 12.0, 'I': 8.0}\",\"('I', 'P', 'Se')\",OTHERS,False\nmp-23996,\"{'H': 16.0, 'Be': 2.0, 'O': 16.0, 'S': 2.0}\",\"('Be', 'H', 'O', 'S')\",OTHERS,False\nmp-570527,\"{'Yb': 20.0, 'Au': 16.0}\",\"('Au', 'Yb')\",OTHERS,False\nmp-1249385,\"{'Ba': 2.0, 'Ti': 2.0, 'Al': 1.0, 'Tl': 1.0, 'O': 7.0}\",\"('Al', 'Ba', 'O', 'Ti', 'Tl')\",OTHERS,False\nmp-1206002,\"{'Er': 6.0, 'Fe': 1.0, 'Bi': 2.0}\",\"('Bi', 'Er', 'Fe')\",OTHERS,False\nmp-581681,\"{'Ca': 42.0, 'Mn': 8.0, 'Sb': 36.0}\",\"('Ca', 'Mn', 'Sb')\",OTHERS,False\nmp-1206973,\"{'Fe': 2.0, 'Co': 2.0, 'Ge': 2.0}\",\"('Co', 'Fe', 'Ge')\",OTHERS,False\nmp-1218764,\"{'Sr': 2.0, 'Tb': 1.0, 'Cu': 2.0, 'Ir': 1.0, 'O': 8.0}\",\"('Cu', 'Ir', 'O', 'Sr', 'Tb')\",OTHERS,False\nmp-554747,\"{'Li': 20.0, 'La': 12.0, 'Nb': 8.0, 'O': 48.0}\",\"('La', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-1187264,\"{'Tb': 2.0, 'Ni': 1.0, 'Ir': 1.0}\",\"('Ir', 'Ni', 'Tb')\",OTHERS,False\nmvc-16518,\"{'Ca': 4.0, 'Ta': 4.0, 'Cr': 2.0, 'O': 16.0}\",\"('Ca', 'Cr', 'O', 'Ta')\",OTHERS,False\nmp-1227730,\"{'Ca': 4.0, 'Fe': 3.0, 'As': 8.0, 'Pt': 1.0}\",\"('As', 'Ca', 'Fe', 'Pt')\",OTHERS,False\nmp-1184192,\"{'Er': 6.0, 'Tm': 2.0}\",\"('Er', 'Tm')\",OTHERS,False\nmp-505262,\"{'Gd': 2.0, 'Se': 2.0, 'Cu': 2.0, 'O': 2.0}\",\"('Cu', 'Gd', 'O', 'Se')\",OTHERS,False\nmp-1174519,\"{'Li': 5.0, 'Mn': 3.0, 'O': 8.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-569696,\"{'La': 1.0, 'Al': 2.0, 'Ga': 2.0}\",\"('Al', 'Ga', 'La')\",OTHERS,False\nmp-1184692,\"{'Ho': 2.0, 'Zn': 1.0, 'Pt': 1.0}\",\"('Ho', 'Pt', 'Zn')\",OTHERS,False\nmp-772617,\"{'Zn': 4.0, 'N': 8.0, 'O': 24.0}\",\"('N', 'O', 'Zn')\",OTHERS,False\nmp-1210330,\"{'Na': 8.0, 'Zr': 4.0, 'Ge': 10.0, 'H': 2.0, 'O': 32.0}\",\"('Ge', 'H', 'Na', 'O', 'Zr')\",OTHERS,False\nmp-29743,\"{'O': 56.0, 'Sr': 20.0, 'U': 12.0}\",\"('O', 'Sr', 'U')\",OTHERS,False\nmp-1210278,\"{'Pu': 8.0, 'Mo': 16.0, 'O': 64.0}\",\"('Mo', 'O', 'Pu')\",OTHERS,False\nmp-1203156,\"{'Y': 8.0, 'Cd': 8.0, 'Bi': 8.0, 'O': 32.0}\",\"('Bi', 'Cd', 'O', 'Y')\",OTHERS,False\nmp-1205834,\"{'Er': 2.0, 'Al': 4.0, 'Ni': 1.0, 'Ge': 2.0}\",\"('Al', 'Er', 'Ge', 'Ni')\",OTHERS,False\nmp-4007,\"{'Si': 2.0, 'Ni': 2.0, 'Nd': 1.0}\",\"('Nd', 'Ni', 'Si')\",OTHERS,False\nmp-1018900,\"{'Pr': 2.0, 'Cu': 2.0, 'Pb': 2.0}\",\"('Cu', 'Pb', 'Pr')\",OTHERS,False\nmp-1228832,\"{'Al': 1.0, 'Ni': 6.0, 'Ge': 1.0}\",\"('Al', 'Ge', 'Ni')\",OTHERS,False\nmp-1205555,\"{'U': 2.0, 'Si': 2.0, 'Os': 4.0, 'C': 2.0}\",\"('C', 'Os', 'Si', 'U')\",OTHERS,False\nmp-1178538,\"{'Ba': 4.0, 'Ca': 4.0, 'I': 16.0}\",\"('Ba', 'Ca', 'I')\",OTHERS,False\nmp-754942,\"{'Sr': 2.0, 'Sm': 4.0, 'O': 8.0}\",\"('O', 'Sm', 'Sr')\",OTHERS,False\nmp-652101,\"{'Zn': 20.0, 'Fe': 2.0, 'B': 16.0, 'Rh': 36.0}\",\"('B', 'Fe', 'Rh', 'Zn')\",OTHERS,False\nmp-972472,\"{'Sn': 1.0, 'As': 3.0}\",\"('As', 'Sn')\",OTHERS,False\nmp-769626,\"{'Li': 4.0, 'Mn': 2.0, 'Nb': 3.0, 'Fe': 3.0, 'O': 16.0}\",\"('Fe', 'Li', 'Mn', 'Nb', 'O')\",OTHERS,False\nmp-573051,\"{'Re': 6.0, 'O': 18.0, 'F': 6.0}\",\"('F', 'O', 'Re')\",OTHERS,False\nmp-1186693,\"{'Pr': 2.0, 'Mg': 1.0, 'Cd': 1.0}\",\"('Cd', 'Mg', 'Pr')\",OTHERS,False\nmp-2503,\"{'Se': 8.0, 'Pd': 14.0}\",\"('Pd', 'Se')\",OTHERS,False\nmp-1186346,\"{'Np': 1.0, 'Sn': 1.0, 'O': 3.0}\",\"('Np', 'O', 'Sn')\",OTHERS,False\nmp-1196261,\"{'Sb': 8.0, 'Xe': 4.0, 'F': 38.0}\",\"('F', 'Sb', 'Xe')\",OTHERS,False\nmp-1103729,\"{'Na': 1.0, 'Ge': 6.0, 'As': 6.0}\",\"('As', 'Ge', 'Na')\",OTHERS,False\nmp-510728,\"{'Co': 1.0, 'Mn': 1.0, 'N': 12.0, 'H': 18.0, 'C': 6.0}\",\"('C', 'Co', 'H', 'Mn', 'N')\",OTHERS,False\nmp-765725,\"{'Na': 3.0, 'Li': 5.0, 'Mn': 5.0, 'O': 9.0}\",\"('Li', 'Mn', 'Na', 'O')\",OTHERS,False\nZn 58 Mg 40 Dy 2,\"{'Zn': 58.0, 'Mg': 40.0, 'Dy': 2.0}\",\"('Dy', 'Mg', 'Zn')\",QC,False\nmp-756075,\"{'Cr': 1.0, 'Te': 1.0, 'W': 2.0, 'O': 12.0}\",\"('Cr', 'O', 'Te', 'W')\",OTHERS,False\nmp-722344,\"{'K': 1.0, 'Ca': 4.0, 'B': 22.0, 'H': 18.0, 'Cl': 1.0, 'O': 46.0}\",\"('B', 'Ca', 'Cl', 'H', 'K', 'O')\",OTHERS,False\nmp-362,\"{'Ni': 6.0, 'S': 4.0}\",\"('Ni', 'S')\",OTHERS,False\nmp-1181143,\"{'K': 4.0, 'Tb': 4.0, 'N': 16.0, 'O': 56.0}\",\"('K', 'N', 'O', 'Tb')\",OTHERS,False\nmp-1094552,\"{'Mg': 6.0, 'Sb': 6.0}\",\"('Mg', 'Sb')\",OTHERS,False\nmp-1219321,\"{'Sm': 4.0, 'Cr': 1.0, 'Fe': 33.0}\",\"('Cr', 'Fe', 'Sm')\",OTHERS,False\nmp-1178360,\"{'Dy': 4.0, 'In': 4.0, 'O': 12.0}\",\"('Dy', 'In', 'O')\",OTHERS,False\nmp-1218644,\"{'Sr': 5.0, 'Ca': 1.0, 'Cu': 4.0, 'Bi': 4.0, 'O': 8.0}\",\"('Bi', 'Ca', 'Cu', 'O', 'Sr')\",OTHERS,False\nmp-1029125,\"{'Te': 2.0, 'Mo': 1.0, 'W': 3.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-753120,\"{'W': 4.0, 'O': 4.0, 'F': 16.0}\",\"('F', 'O', 'W')\",OTHERS,False\nmp-29151,\"{'Li': 5.0, 'N': 1.0, 'Cl': 2.0}\",\"('Cl', 'Li', 'N')\",OTHERS,False\nmp-759214,\"{'Co': 4.0, 'P': 12.0, 'O': 36.0}\",\"('Co', 'O', 'P')\",OTHERS,False\nmp-569913,\"{'Ce': 6.0, 'Si': 2.0, 'Pt': 10.0}\",\"('Ce', 'Pt', 'Si')\",OTHERS,False\nmp-1220045,\"{'Os': 3.0, 'W': 3.0, 'C': 2.0}\",\"('C', 'Os', 'W')\",OTHERS,False\nmp-1245610,\"{'Si': 12.0, 'Sb': 20.0, 'N': 36.0}\",\"('N', 'Sb', 'Si')\",OTHERS,False\nmp-1225095,\"{'H': 4.0, 'Ru': 4.0, 'Rh': 4.0, 'C': 24.0, 'O': 24.0}\",\"('C', 'H', 'O', 'Rh', 'Ru')\",OTHERS,False\nmp-541870,\"{'K': 4.0, 'Al': 8.0, 'P': 8.0, 'O': 44.0, 'H': 20.0}\",\"('Al', 'H', 'K', 'O', 'P')\",OTHERS,False\nmp-714885,\"{'V': 2.0, 'O': 2.0}\",\"('O', 'V')\",OTHERS,False\nmp-1038709,\"{'Cs': 1.0, 'Mg': 30.0, 'Ga': 1.0, 'O': 32.0}\",\"('Cs', 'Ga', 'Mg', 'O')\",OTHERS,False\nmp-743603,\"{'Li': 3.0, 'Ti': 3.0, 'Fe': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Li', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1100586,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1179515,\"{'Sc': 6.0, 'Ru': 2.0, 'C': 8.0}\",\"('C', 'Ru', 'Sc')\",OTHERS,False\nmp-1223486,\"{'La': 18.0, 'Al': 10.0, 'Se': 42.0}\",\"('Al', 'La', 'Se')\",OTHERS,False\nmp-770831,\"{'Na': 6.0, 'Co': 2.0, 'B': 2.0, 'S': 2.0, 'O': 14.0}\",\"('B', 'Co', 'Na', 'O', 'S')\",OTHERS,False\nmp-11734,\"{'O': 6.0, 'Mg': 1.0, 'Sr': 2.0, 'Re': 1.0}\",\"('Mg', 'O', 'Re', 'Sr')\",OTHERS,False\nmp-1193559,\"{'Rb': 4.0, 'S': 4.0, 'N': 4.0, 'O': 16.0}\",\"('N', 'O', 'Rb', 'S')\",OTHERS,False\nmp-764980,\"{'Li': 4.0, 'Mn': 4.0, 'F': 20.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-778364,\"{'Na': 12.0, 'Ti': 4.0, 'O': 14.0}\",\"('Na', 'O', 'Ti')\",OTHERS,False\nmp-8176,\"{'O': 2.0, 'Rb': 1.0, 'Tl': 1.0}\",\"('O', 'Rb', 'Tl')\",OTHERS,False\nmp-1196125,\"{'Si': 14.0, 'H': 84.0, 'C': 28.0}\",\"('C', 'H', 'Si')\",OTHERS,False\nmp-690435,\"{'Li': 7.0, 'Mn': 11.0, 'O': 24.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-5900,\"{'F': 32.0, 'Zr': 4.0, 'Ba': 8.0}\",\"('Ba', 'F', 'Zr')\",OTHERS,False\nmp-775804,\"{'Li': 12.0, 'Sb': 4.0, 'S': 12.0}\",\"('Li', 'S', 'Sb')\",OTHERS,False\nmp-29598,\"{'N': 14.0, 'Na': 2.0, 'P': 8.0}\",\"('N', 'Na', 'P')\",OTHERS,False\nmp-1080277,\"{'Ce': 6.0, 'Se': 12.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-1185851,\"{'Mg': 2.0, 'C': 2.0}\",\"('C', 'Mg')\",OTHERS,False\nmp-761745,\"{'Sr': 2.0, 'Cd': 4.0, 'H': 32.0, 'Br': 12.0, 'O': 16.0}\",\"('Br', 'Cd', 'H', 'O', 'Sr')\",OTHERS,False\nmp-2201,\"{'Se': 1.0, 'Pb': 1.0}\",\"('Pb', 'Se')\",OTHERS,False\nmp-1227444,\"{'Bi': 1.0, 'Pb': 1.0, 'Br': 1.0, 'O': 2.0}\",\"('Bi', 'Br', 'O', 'Pb')\",OTHERS,False\nmp-755409,\"{'Li': 5.0, 'Mn': 2.0, 'Cu': 3.0, 'O': 10.0}\",\"('Cu', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-510262,\"{'O': 2.0, 'Cs': 6.0}\",\"('Cs', 'O')\",OTHERS,False\nmp-1195553,\"{'Zr': 2.0, 'Zn': 40.0, 'Fe': 4.0}\",\"('Fe', 'Zn', 'Zr')\",OTHERS,False\nmp-1226753,\"{'Cd': 1.0, 'Bi': 1.0, 'I': 1.0, 'O': 2.0}\",\"('Bi', 'Cd', 'I', 'O')\",OTHERS,False\nmp-693655,\"{'Ba': 4.0, 'Sm': 7.0, 'Si': 12.0, 'B': 1.0, 'N': 27.0}\",\"('B', 'Ba', 'N', 'Si', 'Sm')\",OTHERS,False\nmp-760261,\"{'Li': 12.0, 'Cr': 4.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Cr', 'Li', 'O')\",OTHERS,False\nmp-1215547,\"{'Zn': 3.0, 'Cr': 8.0, 'Fe': 1.0, 'S': 16.0}\",\"('Cr', 'Fe', 'S', 'Zn')\",OTHERS,False\nmp-540610,\"{'K': 4.0, 'U': 14.0, 'O': 44.0}\",\"('K', 'O', 'U')\",OTHERS,False\nmp-24055,\"{'H': 24.0, 'N': 24.0, 'O': 32.0, 'K': 4.0, 'Co': 4.0}\",\"('Co', 'H', 'K', 'N', 'O')\",OTHERS,False\nmp-22711,\"{'Al': 14.0, 'Gd': 2.0, 'Au': 6.0}\",\"('Al', 'Au', 'Gd')\",OTHERS,False\nmp-1205588,\"{'Mn': 6.0, 'Ge': 2.0, 'N': 2.0}\",\"('Ge', 'Mn', 'N')\",OTHERS,False\nmp-627291,\"{'V': 6.0, 'H': 12.0, 'O': 20.0}\",\"('H', 'O', 'V')\",OTHERS,False\nmp-1237686,\"{'Rb': 8.0, 'Al': 4.0, 'H': 16.0, 'N': 8.0}\",\"('Al', 'H', 'N', 'Rb')\",OTHERS,False\nmp-1079888,\"{'Ti': 4.0, 'Se': 4.0}\",\"('Se', 'Ti')\",OTHERS,False\nmp-29412,\"{'Br': 28.0, 'Ta': 12.0}\",\"('Br', 'Ta')\",OTHERS,False\nmp-4736,\"{'O': 56.0, 'P': 20.0, 'Nd': 4.0}\",\"('Nd', 'O', 'P')\",OTHERS,False\nmp-18998,\"{'Sr': 16.0, 'Mn': 12.0, 'O': 40.0}\",\"('Mn', 'O', 'Sr')\",OTHERS,False\nmp-4495,\"{'Li': 2.0, 'K': 2.0, 'Te': 2.0}\",\"('K', 'Li', 'Te')\",OTHERS,False\nmp-774722,\"{'Li': 1.0, 'La': 20.0, 'Cu': 9.0, 'O': 40.0}\",\"('Cu', 'La', 'Li', 'O')\",OTHERS,False\nmp-1187727,\"{'Yb': 1.0, 'Eu': 1.0, 'Zn': 2.0}\",\"('Eu', 'Yb', 'Zn')\",OTHERS,False\nmp-1210713,\"{'Mn': 13.0, 'Fe': 1.0, 'Si': 2.0, 'O': 22.0}\",\"('Fe', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-980049,\"{'Yb': 3.0, 'Re': 1.0}\",\"('Re', 'Yb')\",OTHERS,False\nmp-18282,\"{'O': 16.0, 'Sc': 2.0, 'Zn': 2.0, 'Mo': 6.0}\",\"('Mo', 'O', 'Sc', 'Zn')\",OTHERS,False\nmp-531213,\"{'Ca': 13.0, 'F': 43.0, 'Y': 6.0}\",\"('Ca', 'F', 'Y')\",OTHERS,False\nmp-757595,\"{'H': 24.0, 'S': 8.0, 'N': 8.0, 'O': 24.0}\",\"('H', 'N', 'O', 'S')\",OTHERS,False\nmp-1008865,\"{'Nd': 1.0, 'Cd': 2.0}\",\"('Cd', 'Nd')\",OTHERS,False\nmp-1097314,\"{'Mn': 1.0, 'Ga': 1.0, 'Fe': 2.0}\",\"('Fe', 'Ga', 'Mn')\",OTHERS,False\nmp-1221406,\"{'Na': 3.0, 'Eu': 3.0, 'F': 12.0}\",\"('Eu', 'F', 'Na')\",OTHERS,False\nmp-1201218,\"{'Si': 18.0, 'C': 16.0, 'N': 2.0, 'O': 38.0}\",\"('C', 'N', 'O', 'Si')\",OTHERS,False\nmp-1187561,\"{'Yb': 1.0, 'Ga': 1.0, 'O': 3.0}\",\"('Ga', 'O', 'Yb')\",OTHERS,False\nmp-1072492,\"{'Ca': 2.0, 'C': 4.0}\",\"('C', 'Ca')\",OTHERS,False\nmp-1205778,\"{'Ho': 3.0, 'Cd': 3.0, 'Au': 3.0}\",\"('Au', 'Cd', 'Ho')\",OTHERS,False\nmp-776576,\"{'Li': 2.0, 'Ti': 2.0, 'Mn': 1.0, 'Cr': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Li', 'Mn', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1223695,\"{'In': 1.0, 'Sn': 1.0, 'Te': 2.0}\",\"('In', 'Sn', 'Te')\",OTHERS,False\nmp-1001835,\"{'Li': 2.0, 'B': 2.0}\",\"('B', 'Li')\",OTHERS,False\nmp-973895,\"{'Ni': 3.0, 'H': 1.0}\",\"('H', 'Ni')\",OTHERS,False\nmp-999263,\"{'Rh': 2.0, 'N': 2.0}\",\"('N', 'Rh')\",OTHERS,False\nmp-1114653,\"{'K': 1.0, 'Rb': 2.0, 'Al': 1.0, 'Cl': 6.0}\",\"('Al', 'Cl', 'K', 'Rb')\",OTHERS,False\nmp-1094554,\"{'Mg': 8.0, 'Sb': 4.0}\",\"('Mg', 'Sb')\",OTHERS,False\nmp-34501,\"{'Fe': 4.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Fe', 'O')\",OTHERS,False\nmp-1025347,\"{'Ti': 2.0, 'Co': 1.0, 'Se': 4.0}\",\"('Co', 'Se', 'Ti')\",OTHERS,False\nmp-556458,\"{'Ba': 3.0, 'Ca': 3.0, 'C': 6.0, 'O': 18.0}\",\"('Ba', 'C', 'Ca', 'O')\",OTHERS,False\nAl 88.6 Cu 19.4 Li 50.3,\"{'Al': 88.6, 'Cu': 19.4, 'Li': 50.3}\",\"('Al', 'Cu', 'Li')\",AC,False\nmp-757826,\"{'Cs': 1.0, 'Ca': 1.0, 'N': 3.0, 'O': 6.0}\",\"('Ca', 'Cs', 'N', 'O')\",OTHERS,False\nmp-1223419,\"{'K': 2.0, 'Si': 10.0, 'B': 2.0, 'O': 26.0}\",\"('B', 'K', 'O', 'Si')\",OTHERS,False\nmp-1096027,\"{'Ti': 2.0, 'Zn': 1.0, 'Rh': 1.0}\",\"('Rh', 'Ti', 'Zn')\",OTHERS,False\nmp-1200006,\"{'Ag': 16.0, 'H': 128.0, 'C': 48.0, 'S': 32.0, 'N': 16.0, 'O': 48.0}\",\"('Ag', 'C', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-1210341,\"{'Na': 8.0, 'Al': 6.0, 'Si': 6.0, 'N': 2.0, 'O': 24.0}\",\"('Al', 'N', 'Na', 'O', 'Si')\",OTHERS,False\nmp-30843,\"{'Sr': 28.0, 'Pt': 12.0}\",\"('Pt', 'Sr')\",OTHERS,False\nmp-556201,\"{'Ag': 2.0, 'Sb': 2.0, 'C': 4.0, 'N': 4.0, 'Cl': 4.0, 'F': 12.0}\",\"('Ag', 'C', 'Cl', 'F', 'N', 'Sb')\",OTHERS,False\nmvc-15475,\"{'Al': 1.0, 'Ag': 1.0, 'O': 3.0}\",\"('Ag', 'Al', 'O')\",OTHERS,False\nmp-1208552,\"{'Tb': 4.0, 'Al': 18.0, 'Ir': 6.0}\",\"('Al', 'Ir', 'Tb')\",OTHERS,False\nmp-665747,\"{'Eu': 4.0, 'Ag': 4.0}\",\"('Ag', 'Eu')\",OTHERS,False\nmp-6425,\"{'Li': 6.0, 'O': 24.0, 'P': 6.0, 'In': 4.0}\",\"('In', 'Li', 'O', 'P')\",OTHERS,False\nmp-759823,\"{'Li': 12.0, 'Cu': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-27556,\"{'O': 24.0, 'Nb': 8.0, 'Cs': 8.0}\",\"('Cs', 'Nb', 'O')\",OTHERS,False\nmp-27760,\"{'Pr': 2.0, 'Si': 4.0}\",\"('Pr', 'Si')\",OTHERS,False\nmp-28645,\"{'N': 2.0, 'Ca': 2.0, 'Ni': 2.0}\",\"('Ca', 'N', 'Ni')\",OTHERS,False\nmp-753239,\"{'Li': 2.0, 'Sn': 2.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('H', 'Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-755944,\"{'Li': 3.0, 'Fe': 2.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-646609,\"{'U': 4.0, 'In': 2.0, 'Rh': 4.0}\",\"('In', 'Rh', 'U')\",OTHERS,False\nmp-973738,\"{'Ge': 1.0, 'B': 1.0, 'O': 3.0}\",\"('B', 'Ge', 'O')\",OTHERS,False\nmp-1209298,\"{'Rb': 2.0, 'P': 30.0}\",\"('P', 'Rb')\",OTHERS,False\nmp-684642,\"{'S': 18.0, 'N': 18.0}\",\"('N', 'S')\",OTHERS,False\nmp-10209,\"{'Al': 3.0, 'Ni': 1.0, 'Ge': 2.0, 'Y': 3.0}\",\"('Al', 'Ge', 'Ni', 'Y')\",OTHERS,False\nmp-12569,\"{'B': 16.0, 'Pr': 4.0}\",\"('B', 'Pr')\",OTHERS,False\nmp-1223708,\"{'K': 2.0, 'Mo': 8.0, 'O': 13.0}\",\"('K', 'Mo', 'O')\",OTHERS,False\nmp-560060,\"{'Nd': 2.0, 'Sn': 4.0, 'P': 20.0, 'Cl': 74.0, 'O': 24.0}\",\"('Cl', 'Nd', 'O', 'P', 'Sn')\",OTHERS,False\nmp-571079,\"{'Tl': 2.0, 'Cl': 2.0}\",\"('Cl', 'Tl')\",OTHERS,False\nmp-1199182,\"{'K': 8.0, 'Cu': 16.0, 'Sb': 8.0, 'Se': 24.0}\",\"('Cu', 'K', 'Sb', 'Se')\",OTHERS,False\nmp-1076681,\"{'Ba': 1.0, 'Sr': 7.0, 'Co': 6.0, 'Cu': 2.0, 'O': 24.0}\",\"('Ba', 'Co', 'Cu', 'O', 'Sr')\",OTHERS,False\nmp-1019091,\"{'La': 2.0, 'Se': 4.0}\",\"('La', 'Se')\",OTHERS,False\nmp-645158,\"{'La': 4.0, 'Mn': 4.0, 'O': 12.0}\",\"('La', 'Mn', 'O')\",OTHERS,False\nmvc-5781,\"{'Zn': 4.0, 'Ir': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Ir', 'O', 'W', 'Zn')\",OTHERS,False\nmp-974417,\"{'Re': 3.0, 'Sb': 1.0}\",\"('Re', 'Sb')\",OTHERS,False\nmp-12651,\"{'Mg': 4.0, 'Pt': 4.0}\",\"('Mg', 'Pt')\",OTHERS,False\nmp-1038767,\"{'Mg': 4.0, 'Cd': 4.0}\",\"('Cd', 'Mg')\",OTHERS,False\nmp-1179617,\"{'W': 17.0, 'O': 47.0}\",\"('O', 'W')\",OTHERS,False\nmvc-10584,\"{'Ca': 2.0, 'V': 6.0, 'P': 6.0, 'O': 26.0}\",\"('Ca', 'O', 'P', 'V')\",OTHERS,False\nmvc-9655,\"{'Pr': 2.0, 'W': 4.0, 'O': 12.0}\",\"('O', 'Pr', 'W')\",OTHERS,False\nmp-635469,\"{'Ce': 2.0, 'Cu': 2.0, 'S': 2.0, 'O': 2.0}\",\"('Ce', 'Cu', 'O', 'S')\",OTHERS,False\nmp-770815,\"{'Cs': 12.0, 'Y': 4.0, 'O': 12.0}\",\"('Cs', 'O', 'Y')\",OTHERS,False\nmp-752655,\"{'Li': 4.0, 'Nb': 2.0, 'Fe': 3.0, 'Ni': 3.0, 'O': 16.0}\",\"('Fe', 'Li', 'Nb', 'Ni', 'O')\",OTHERS,False\nmp-1225750,\"{'Er': 2.0, 'Si': 3.0}\",\"('Er', 'Si')\",OTHERS,False\nmp-669435,\"{'K': 4.0, 'La': 4.0, 'C': 4.0, 'O': 16.0}\",\"('C', 'K', 'La', 'O')\",OTHERS,False\nmp-555835,\"{'Gd': 12.0, 'Sc': 8.0, 'Ga': 12.0, 'O': 48.0}\",\"('Ga', 'Gd', 'O', 'Sc')\",OTHERS,False\nmp-1077593,\"{'Sm': 2.0, 'Sn': 4.0}\",\"('Sm', 'Sn')\",OTHERS,False\nmp-849295,\"{'Fe': 2.0, 'B': 2.0, 'O': 6.0}\",\"('B', 'Fe', 'O')\",OTHERS,False\nmp-6331,\"{'B': 8.0, 'O': 28.0, 'Na': 8.0, 'Y': 8.0}\",\"('B', 'Na', 'O', 'Y')\",OTHERS,False\nmp-1185369,\"{'Li': 1.0, 'Lu': 1.0, 'In': 2.0}\",\"('In', 'Li', 'Lu')\",OTHERS,False\nmp-1213040,\"{'Er': 1.0, 'Mn': 4.0, 'Cu': 3.0, 'O': 12.0}\",\"('Cu', 'Er', 'Mn', 'O')\",OTHERS,False\nmp-555273,\"{'Ca': 12.0, 'Ge': 4.0, 'Cl': 8.0, 'O': 16.0}\",\"('Ca', 'Cl', 'Ge', 'O')\",OTHERS,False\nmp-1201508,\"{'K': 16.0, 'Si': 16.0}\",\"('K', 'Si')\",OTHERS,False\nmp-684969,\"{'Sc': 4.0, 'S': 6.0}\",\"('S', 'Sc')\",OTHERS,False\nmp-758790,\"{'Li': 4.0, 'Fe': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1208093,\"{'V': 2.0, 'Cu': 3.0, 'O': 11.0}\",\"('Cu', 'O', 'V')\",OTHERS,False\nmp-540482,\"{'Li': 2.0, 'Cr': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-684606,\"{'Cu': 27.0, 'Se': 20.0}\",\"('Cu', 'Se')\",OTHERS,False\nmp-773139,\"{'Li': 4.0, 'V': 3.0, 'Sb': 5.0, 'O': 16.0}\",\"('Li', 'O', 'Sb', 'V')\",OTHERS,False\nmp-1006330,\"{'Ce': 3.0, 'Cu': 1.0}\",\"('Ce', 'Cu')\",OTHERS,False\nmp-626644,\"{'Ca': 1.0, 'H': 2.0, 'O': 2.0}\",\"('Ca', 'H', 'O')\",OTHERS,False\nmp-1094383,\"{'Mg': 4.0, 'Ti': 4.0}\",\"('Mg', 'Ti')\",OTHERS,False\nmp-1074645,\"{'Mg': 8.0, 'Si': 4.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1193092,\"{'Er': 2.0, 'Be': 26.0}\",\"('Be', 'Er')\",OTHERS,False\nmp-977534,\"{'Zr': 1.0, 'Nb': 1.0, 'Tc': 2.0}\",\"('Nb', 'Tc', 'Zr')\",OTHERS,False\nmp-1192121,\"{'Tb': 4.0, 'Re': 4.0, 'B': 16.0}\",\"('B', 'Re', 'Tb')\",OTHERS,False\nmp-977012,\"{'H': 6.0, 'Pb': 1.0, 'C': 1.0, 'Br': 3.0, 'N': 1.0}\",\"('Br', 'C', 'H', 'N', 'Pb')\",OTHERS,False\nmp-542314,\"{'Nd': 2.0, 'Cu': 2.0, 'S': 2.0, 'O': 2.0}\",\"('Cu', 'Nd', 'O', 'S')\",OTHERS,False\nmp-1174327,\"{'Li': 8.0, 'Co': 6.0, 'O': 14.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1100768,\"{'Tb': 1.0, 'Cd': 1.0, 'Hg': 2.0}\",\"('Cd', 'Hg', 'Tb')\",OTHERS,False\nmp-1018737,\"{'K': 2.0, 'Mg': 2.0, 'P': 2.0}\",\"('K', 'Mg', 'P')\",OTHERS,False\nmp-1222593,\"{'Lu': 3.0, 'Mn': 1.0, 'Fe': 3.0, 'O': 10.0}\",\"('Fe', 'Lu', 'Mn', 'O')\",OTHERS,False\nmp-1247078,\"{'Mg': 2.0, 'Ga': 1.0, 'W': 3.0, 'S': 8.0}\",\"('Ga', 'Mg', 'S', 'W')\",OTHERS,False\nmp-1183230,\"{'Ac': 1.0, 'Sm': 3.0}\",\"('Ac', 'Sm')\",OTHERS,False\nmp-1193901,\"{'Ho': 4.0, 'Mo': 4.0, 'Br': 4.0, 'O': 16.0}\",\"('Br', 'Ho', 'Mo', 'O')\",OTHERS,False\nmp-753231,\"{'Li': 2.0, 'V': 4.0, 'O': 3.0, 'F': 8.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-20106,\"{'Li': 4.0, 'Sb': 4.0, 'Nd': 2.0}\",\"('Li', 'Nd', 'Sb')\",OTHERS,False\nmp-977550,\"{'Zr': 1.0, 'Sc': 1.0, 'Os': 2.0}\",\"('Os', 'Sc', 'Zr')\",OTHERS,False\nmp-29665,\"{'Sb': 3.0, 'Au': 1.0}\",\"('Au', 'Sb')\",OTHERS,False\nmp-1219165,\"{'Sm': 4.0, 'Fe': 3.0, 'Co': 1.0, 'As': 4.0, 'O': 4.0}\",\"('As', 'Co', 'Fe', 'O', 'Sm')\",OTHERS,False\nmp-639160,\"{'Gd': 4.0, 'In': 2.0, 'Ge': 4.0}\",\"('Gd', 'Ge', 'In')\",OTHERS,False\nmp-1186935,\"{'Sc': 2.0, 'Cd': 1.0, 'Os': 1.0}\",\"('Cd', 'Os', 'Sc')\",OTHERS,False\nmp-1246245,\"{'Ba': 8.0, 'Fe': 3.0, 'N': 8.0}\",\"('Ba', 'Fe', 'N')\",OTHERS,False\nmp-1193953,\"{'U': 4.0, 'N': 4.0, 'F': 20.0}\",\"('F', 'N', 'U')\",OTHERS,False\nmp-22339,\"{'Co': 3.0, 'Sn': 3.0, 'Th': 3.0}\",\"('Co', 'Sn', 'Th')\",OTHERS,False\nmp-1096227,\"{'Ca': 1.0, 'Cd': 2.0, 'In': 1.0}\",\"('Ca', 'Cd', 'In')\",OTHERS,False\nmp-1215860,\"{'Yb': 1.0, 'Lu': 2.0, 'Se': 4.0}\",\"('Lu', 'Se', 'Yb')\",OTHERS,False\nmp-1213479,\"{'Dy': 4.0, 'Cu': 2.0, 'W': 8.0, 'O': 32.0}\",\"('Cu', 'Dy', 'O', 'W')\",OTHERS,False\nmp-17623,\"{'Si': 4.0, 'Co': 18.0, 'Sm': 2.0}\",\"('Co', 'Si', 'Sm')\",OTHERS,False\nmp-1218040,\"{'Sr': 2.0, 'Nd': 2.0, 'Sc': 2.0, 'O': 8.0}\",\"('Nd', 'O', 'Sc', 'Sr')\",OTHERS,False\nmp-1225871,\"{'Cu': 8.0, 'Ge': 4.0, 'S': 12.0}\",\"('Cu', 'Ge', 'S')\",OTHERS,False\nmp-758355,\"{'Li': 8.0, 'V': 8.0, 'P': 8.0, 'O': 40.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmvc-3621,\"{'Mn': 4.0, 'Zn': 6.0, 'O': 14.0}\",\"('Mn', 'O', 'Zn')\",OTHERS,False\nmp-541582,\"{'Re': 4.0, 'Se': 8.0}\",\"('Re', 'Se')\",OTHERS,False\nmp-1188815,\"{'U': 4.0, 'Co': 2.0, 'S': 10.0}\",\"('Co', 'S', 'U')\",OTHERS,False\nmp-1176443,\"{'Mn': 4.0, 'Fe': 4.0, 'B': 4.0, 'O': 16.0}\",\"('B', 'Fe', 'Mn', 'O')\",OTHERS,False\nmp-570596,\"{'Nd': 4.0, 'Ni': 34.0}\",\"('Nd', 'Ni')\",OTHERS,False\nmp-1220390,\"{'Nb': 1.0, 'Au': 4.0}\",\"('Au', 'Nb')\",OTHERS,False\nmp-560570,\"{'Rb': 2.0, 'Na': 1.0, 'Al': 6.0, 'F': 21.0}\",\"('Al', 'F', 'Na', 'Rb')\",OTHERS,False\nmp-17891,\"{'O': 16.0, 'Na': 4.0, 'Si': 4.0, 'Y': 4.0}\",\"('Na', 'O', 'Si', 'Y')\",OTHERS,False\nmp-1226322,\"{'Cr': 4.0, 'In': 1.0, 'Ag': 1.0, 'Se': 8.0}\",\"('Ag', 'Cr', 'In', 'Se')\",OTHERS,False\nmp-1255465,\"{'Zn': 2.0, 'Cu': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Cu', 'O', 'Si', 'Zn')\",OTHERS,False\nmp-978101,\"{'Pr': 2.0, 'Fe': 2.0, 'Ge': 4.0}\",\"('Fe', 'Ge', 'Pr')\",OTHERS,False\nmp-14206,\"{'K': 3.0, 'As': 2.0, 'Ag': 3.0}\",\"('Ag', 'As', 'K')\",OTHERS,False\nmp-22747,\"{'C': 4.0, 'O': 8.0, 'Pb': 2.0}\",\"('C', 'O', 'Pb')\",OTHERS,False\nmp-532178,\"{'O': 48.0, 'Yb': 16.0, 'Zr': 12.0}\",\"('O', 'Yb', 'Zr')\",OTHERS,False\nmp-560189,\"{'Na': 8.0, 'Li': 16.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Na', 'O')\",OTHERS,False\nmp-622930,\"{'Ba': 8.0, 'In': 12.0, 'O': 26.0}\",\"('Ba', 'In', 'O')\",OTHERS,False\nmp-1221141,\"{'Na': 5.0, 'Br': 4.0, 'Cl': 1.0}\",\"('Br', 'Cl', 'Na')\",OTHERS,False\nmp-1210580,\"{'Na': 2.0, 'Lu': 2.0, 'Re': 8.0, 'O': 40.0}\",\"('Lu', 'Na', 'O', 'Re')\",OTHERS,False\nmp-672315,\"{'P': 6.0, 'C': 12.0, 'S': 12.0, 'N': 18.0}\",\"('C', 'N', 'P', 'S')\",OTHERS,False\nmp-22136,\"{'O': 12.0, 'Co': 4.0, 'Ge': 4.0}\",\"('Co', 'Ge', 'O')\",OTHERS,False\nmp-30696,\"{'Cu': 8.0, 'Cd': 20.0}\",\"('Cd', 'Cu')\",OTHERS,False\nmp-1253602,\"{'Ba': 6.0, 'Al': 3.0, 'W': 6.0, 'F': 33.0}\",\"('Al', 'Ba', 'F', 'W')\",OTHERS,False\nmp-11558,\"{'Sc': 5.0, 'Re': 24.0}\",\"('Re', 'Sc')\",OTHERS,False\nmp-22652,\"{'Fe': 12.0, 'S': 12.0}\",\"('Fe', 'S')\",OTHERS,False\nmp-558911,\"{'Cs': 4.0, 'Co': 6.0, 'S': 8.0}\",\"('Co', 'Cs', 'S')\",OTHERS,False\nmp-759893,\"{'Mn': 12.0, 'O': 7.0, 'F': 17.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-558861,\"{'K': 4.0, 'I': 4.0, 'O': 8.0, 'F': 8.0}\",\"('F', 'I', 'K', 'O')\",OTHERS,False\nmp-1216890,\"{'Ti': 3.0, 'Ni': 3.0}\",\"('Ni', 'Ti')\",OTHERS,False\nmp-1199416,\"{'Eu': 8.0, 'Co': 4.0, 'Si': 12.0, 'O': 40.0}\",\"('Co', 'Eu', 'O', 'Si')\",OTHERS,False\nGa 43 Co 47 Cu 10,\"{'Ga': 43.0, 'Co': 47.0, 'Cu': 10.0}\",\"('Co', 'Cu', 'Ga')\",QC,False\nmvc-5860,\"{'Bi': 16.0, 'O': 32.0}\",\"('Bi', 'O')\",OTHERS,False\nmp-555559,\"{'Sm': 12.0, 'Nb': 4.0, 'Se': 12.0, 'O': 16.0}\",\"('Nb', 'O', 'Se', 'Sm')\",OTHERS,False\nmp-1174544,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-16488,\"{'Al': 18.0, 'Co': 4.0}\",\"('Al', 'Co')\",OTHERS,False\nmp-753298,\"{'Pr': 1.0, 'Y': 1.0, 'O': 2.0}\",\"('O', 'Pr', 'Y')\",OTHERS,False\nmp-1246650,\"{'Mn': 24.0, 'Se': 16.0, 'N': 16.0}\",\"('Mn', 'N', 'Se')\",OTHERS,False\nmp-1105794,\"{'Pu': 4.0, 'Si': 10.0, 'Pt': 6.0}\",\"('Pt', 'Pu', 'Si')\",OTHERS,False\nmp-849270,\"{'Ti': 34.0, 'N': 12.0, 'O': 48.0}\",\"('N', 'O', 'Ti')\",OTHERS,False\nmp-1187876,\"{'Y': 1.0, 'Rh': 2.0, 'Pb': 1.0}\",\"('Pb', 'Rh', 'Y')\",OTHERS,False\nmp-555282,\"{'Ga': 8.0, 'S': 20.0, 'N': 20.0, 'Cl': 28.0}\",\"('Cl', 'Ga', 'N', 'S')\",OTHERS,False\nmp-777339,\"{'Li': 2.0, 'V': 6.0, 'O': 2.0, 'F': 22.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-1114521,\"{'Rb': 2.0, 'Al': 1.0, 'In': 1.0, 'I': 6.0}\",\"('Al', 'I', 'In', 'Rb')\",OTHERS,False\nmp-1190610,\"{'Ho': 14.0, 'Te': 4.0, 'Au': 4.0}\",\"('Au', 'Ho', 'Te')\",OTHERS,False\nmp-569348,\"{'Tl': 8.0, 'Ga': 8.0, 'Br': 32.0}\",\"('Br', 'Ga', 'Tl')\",OTHERS,False\nmp-1028409,\"{'Mo': 3.0, 'W': 1.0, 'Se': 8.0}\",\"('Mo', 'Se', 'W')\",OTHERS,False\nmp-1264019,\"{'Mn': 8.0, 'Zn': 12.0, 'Si': 12.0, 'O': 48.0}\",\"('Mn', 'O', 'Si', 'Zn')\",OTHERS,False\nmp-1185613,\"{'Mg': 1.0, 'Tl': 1.0, 'O': 3.0}\",\"('Mg', 'O', 'Tl')\",OTHERS,False\nmp-1245870,\"{'Sc': 6.0, 'Si': 12.0, 'N': 22.0}\",\"('N', 'Sc', 'Si')\",OTHERS,False\nmp-1194659,\"{'Cs': 4.0, 'Nb': 4.0, 'V': 8.0, 'O': 32.0}\",\"('Cs', 'Nb', 'O', 'V')\",OTHERS,False\nmp-1206701,\"{'Sr': 2.0, 'Yb': 1.0, 'U': 1.0, 'O': 6.0}\",\"('O', 'Sr', 'U', 'Yb')\",OTHERS,False\nmp-567379,{'Bi': 4.0},\"('Bi',)\",OTHERS,False\nmp-1039255,\"{'Mg': 8.0, 'Cd': 4.0}\",\"('Cd', 'Mg')\",OTHERS,False\nmp-21083,\"{'O': 20.0, 'Co': 4.0, 'Ba': 4.0, 'Yb': 8.0}\",\"('Ba', 'Co', 'O', 'Yb')\",OTHERS,False\nmp-975395,\"{'Nd': 1.0, 'Mg': 16.0, 'Al': 12.0}\",\"('Al', 'Mg', 'Nd')\",OTHERS,False\nmp-6113,\"{'Li': 4.0, 'O': 20.0, 'Ti': 4.0, 'As': 4.0}\",\"('As', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-1216536,\"{'Tm': 1.0, 'Pa': 1.0, 'O': 4.0}\",\"('O', 'Pa', 'Tm')\",OTHERS,False\nmp-549389,\"{'Li': 4.0, 'O': 4.0, 'C': 1.0}\",\"('C', 'Li', 'O')\",OTHERS,False\nmp-1093564,\"{'Li': 1.0, 'Mg': 1.0, 'Ga': 2.0}\",\"('Ga', 'Li', 'Mg')\",OTHERS,False\nmp-557653,\"{'Si': 4.0, 'O': 8.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1078874,\"{'Ba': 2.0, 'Ce': 1.0, 'Ta': 1.0, 'O': 6.0}\",\"('Ba', 'Ce', 'O', 'Ta')\",OTHERS,False\nmp-1194887,\"{'Ca': 32.0, 'As': 24.0}\",\"('As', 'Ca')\",OTHERS,False\nmp-1849,\"{'P': 3.0, 'Mn': 6.0}\",\"('Mn', 'P')\",OTHERS,False\nmp-1216722,\"{'Ti': 1.0, 'Mo': 1.0, 'O': 4.0}\",\"('Mo', 'O', 'Ti')\",OTHERS,False\nmp-998308,\"{'Cs': 1.0, 'Sc': 1.0, 'Br': 3.0}\",\"('Br', 'Cs', 'Sc')\",OTHERS,False\nmp-756463,\"{'Mn': 3.0, 'Sb': 1.0, 'P': 4.0, 'O': 16.0}\",\"('Mn', 'O', 'P', 'Sb')\",OTHERS,False\nmp-849268,\"{'Ni': 6.0, 'O': 2.0, 'F': 10.0}\",\"('F', 'Ni', 'O')\",OTHERS,False\nmp-975190,\"{'Rb': 1.0, 'Te': 1.0, 'O': 3.0}\",\"('O', 'Rb', 'Te')\",OTHERS,False\nmp-7219,\"{'Na': 4.0, 'Se': 6.0, 'Zr': 2.0}\",\"('Na', 'Se', 'Zr')\",OTHERS,False\nmp-1246886,\"{'Ta': 2.0, 'C': 12.0, 'N': 18.0}\",\"('C', 'N', 'Ta')\",OTHERS,False\nmp-1213497,\"{'Gd': 4.0, 'Ga': 18.0, 'Ir': 6.0}\",\"('Ga', 'Gd', 'Ir')\",OTHERS,False\nmp-1216457,\"{'V': 6.0, 'Co': 1.0, 'Rh': 1.0}\",\"('Co', 'Rh', 'V')\",OTHERS,False\nmp-757767,\"{'Li': 32.0, 'Mn': 8.0, 'P': 16.0, 'O': 72.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1227151,\"{'Ca': 2.0, 'Sm': 2.0, 'Mn': 4.0, 'O': 12.0}\",\"('Ca', 'Mn', 'O', 'Sm')\",OTHERS,False\nmp-1080041,\"{'Cs': 2.0, 'Na': 1.0, 'Bi': 1.0, 'Cl': 6.0}\",\"('Bi', 'Cl', 'Cs', 'Na')\",OTHERS,False\nmp-1197020,{'Ge': 34.0},\"('Ge',)\",OTHERS,False\nmp-738654,\"{'U': 4.0, 'H': 64.0, 'C': 16.0, 'N': 16.0, 'O': 48.0}\",\"('C', 'H', 'N', 'O', 'U')\",OTHERS,False\nmp-752507,\"{'Li': 4.0, 'Cu': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-441,\"{'Rb': 2.0, 'Te': 1.0}\",\"('Rb', 'Te')\",OTHERS,False\nmp-1181880,\"{'Fe': 6.0, 'S': 6.0, 'O': 60.0}\",\"('Fe', 'O', 'S')\",OTHERS,False\nmp-676060,\"{'Gd': 4.0, 'Cu': 2.0, 'O': 8.0}\",\"('Cu', 'Gd', 'O')\",OTHERS,False\nmp-1217020,\"{'Ti': 1.0, 'Al': 1.0, 'Fe': 2.0}\",\"('Al', 'Fe', 'Ti')\",OTHERS,False\nmp-757486,\"{'Li': 9.0, 'Cr': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1245936,\"{'Ba': 28.0, 'Zr': 4.0, 'N': 24.0}\",\"('Ba', 'N', 'Zr')\",OTHERS,False\nmp-22579,\"{'O': 16.0, 'Mn': 4.0, 'Se': 4.0}\",\"('Mn', 'O', 'Se')\",OTHERS,False\nmp-758978,\"{'Li': 3.0, 'Ni': 4.0, 'O': 8.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmp-631335,\"{'Mg': 1.0, 'Ta': 1.0, 'Zn': 1.0}\",\"('Mg', 'Ta', 'Zn')\",OTHERS,False\nmp-776457,\"{'Li': 1.0, 'V': 4.0, 'O': 1.0, 'F': 11.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-976147,\"{'Pr': 1.0, 'Er': 3.0}\",\"('Er', 'Pr')\",OTHERS,False\nmp-392,\"{'Sb': 8.0, 'U': 6.0}\",\"('Sb', 'U')\",OTHERS,False\nmp-975652,\"{'Pr': 2.0, 'Te': 4.0}\",\"('Pr', 'Te')\",OTHERS,False\nmp-1058581,{'Ba': 2.0},\"('Ba',)\",OTHERS,False\nmp-640073,\"{'Fe': 2.0, 'Cu': 2.0, 'S': 4.0}\",\"('Cu', 'Fe', 'S')\",OTHERS,False\nmp-1226362,\"{'Cu': 6.0, 'Te': 2.0, 'Mo': 2.0, 'H': 2.0, 'Cl': 4.0, 'O': 15.0}\",\"('Cl', 'Cu', 'H', 'Mo', 'O', 'Te')\",OTHERS,False\nmp-757153,\"{'Li': 1.0, 'Fe': 5.0, 'O': 8.0}\",\"('Fe', 'Li', 'O')\",OTHERS,False\nmp-28810,\"{'C': 2.0, 'Na': 4.0, 'S': 6.0}\",\"('C', 'Na', 'S')\",OTHERS,False\nmp-1174704,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1178410,\"{'Cu': 4.0, 'Ni': 2.0, 'O': 8.0}\",\"('Cu', 'Ni', 'O')\",OTHERS,False\nmp-1012103,\"{'V': 16.0, 'Ni': 8.0, 'O': 48.0}\",\"('Ni', 'O', 'V')\",OTHERS,False\nmp-1226313,\"{'Cr': 1.0, 'Mo': 1.0, 'O': 3.0}\",\"('Cr', 'Mo', 'O')\",OTHERS,False\nmp-1195013,\"{'Na': 4.0, 'Pd': 2.0, 'S': 16.0, 'O': 52.0}\",\"('Na', 'O', 'Pd', 'S')\",OTHERS,False\nmp-1181862,\"{'Cd': 2.0, 'S': 2.0}\",\"('Cd', 'S')\",OTHERS,False\nmp-640345,\"{'Cs': 2.0, 'Mn': 1.0, 'Fe': 1.0, 'C': 6.0, 'N': 6.0}\",\"('C', 'Cs', 'Fe', 'Mn', 'N')\",OTHERS,False\nmp-1187675,\"{'Yb': 1.0, 'Ho': 3.0}\",\"('Ho', 'Yb')\",OTHERS,False\nmp-19292,\"{'O': 6.0, 'Co': 1.0, 'As': 2.0}\",\"('As', 'Co', 'O')\",OTHERS,False\nmp-1105218,\"{'Na': 4.0, 'Os': 4.0, 'O': 12.0}\",\"('Na', 'O', 'Os')\",OTHERS,False\nmp-1245863,\"{'Mg': 1.0, 'Fe': 10.0, 'N': 8.0}\",\"('Fe', 'Mg', 'N')\",OTHERS,False\nZn 58 Mg 40 Tm 2,\"{'Zn': 58.0, 'Mg': 40.0, 'Tm': 2.0}\",\"('Mg', 'Tm', 'Zn')\",QC,False\nmp-776506,\"{'Li': 6.0, 'Mn': 3.0, 'V': 3.0, 'P': 6.0, 'H': 6.0, 'O': 30.0}\",\"('H', 'Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1180521,\"{'Na': 16.0, 'W': 8.0, 'O': 48.0}\",\"('Na', 'O', 'W')\",OTHERS,False\nmp-768613,\"{'Zr': 1.0, 'Mn': 6.0, 'Sn': 6.0}\",\"('Mn', 'Sn', 'Zr')\",OTHERS,False\nmp-1197056,\"{'Sm': 8.0, 'Ga': 16.0, 'Se': 32.0}\",\"('Ga', 'Se', 'Sm')\",OTHERS,False\nmp-1217973,\"{'Sr': 1.0, 'Pr': 1.0, 'V': 1.0, 'O': 4.0}\",\"('O', 'Pr', 'Sr', 'V')\",OTHERS,False\nmp-625367,\"{'Lu': 2.0, 'H': 2.0, 'O': 4.0}\",\"('H', 'Lu', 'O')\",OTHERS,False\nmp-1191988,\"{'Y': 4.0, 'Mn': 4.0, 'B': 16.0}\",\"('B', 'Mn', 'Y')\",OTHERS,False\nmp-648788,\"{'Te': 14.0, 'Os': 2.0, 'O': 10.0, 'F': 64.0}\",\"('F', 'O', 'Os', 'Te')\",OTHERS,False\nmp-1018779,\"{'Li': 3.0, 'Pr': 1.0, 'Sb': 2.0}\",\"('Li', 'Pr', 'Sb')\",OTHERS,False\nmp-10846,\"{'Ni': 4.0, 'As': 4.0, 'Se': 4.0}\",\"('As', 'Ni', 'Se')\",OTHERS,False\nmp-753323,\"{'Li': 4.0, 'Mn': 2.0, 'O': 1.0, 'F': 7.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1206244,\"{'Lu': 2.0, 'O': 4.0}\",\"('Lu', 'O')\",OTHERS,False\nmp-1104583,\"{'Pt': 1.0, 'S': 2.0, 'N': 4.0, 'O': 8.0}\",\"('N', 'O', 'Pt', 'S')\",OTHERS,False\nmp-1827,\"{'Ga': 4.0, 'Sr': 1.0}\",\"('Ga', 'Sr')\",OTHERS,False\nmp-1178188,\"{'Ho': 10.0, 'Ti': 10.0, 'O': 34.0}\",\"('Ho', 'O', 'Ti')\",OTHERS,False\nmp-1101948,\"{'Nb': 4.0, 'P': 4.0, 'Rh': 4.0}\",\"('Nb', 'P', 'Rh')\",OTHERS,False\nmp-1188137,\"{'Cd': 4.0, 'Hg': 4.0, 'S': 4.0, 'Br': 4.0}\",\"('Br', 'Cd', 'Hg', 'S')\",OTHERS,False\nmp-998928,\"{'Tl': 1.0, 'Cd': 1.0, 'S': 2.0}\",\"('Cd', 'S', 'Tl')\",OTHERS,False\nmp-761797,\"{'Li': 6.0, 'Mn': 15.0, 'O': 32.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1058171,\"{'Na': 1.0, 'S': 1.0}\",\"('Na', 'S')\",OTHERS,False\nmp-1220172,\"{'Nd': 1.0, 'Al': 2.0, 'Pt': 3.0}\",\"('Al', 'Nd', 'Pt')\",OTHERS,False\nmp-1072645,\"{'Si': 4.0, 'Os': 2.0}\",\"('Os', 'Si')\",OTHERS,False\nmp-20313,\"{'O': 16.0, 'Si': 4.0, 'Fe': 8.0}\",\"('Fe', 'O', 'Si')\",OTHERS,False\nmp-1226506,\"{'Ce': 1.0, 'Th': 2.0, 'O': 6.0}\",\"('Ce', 'O', 'Th')\",OTHERS,False\nmp-997002,\"{'K': 2.0, 'Au': 2.0, 'O': 4.0}\",\"('Au', 'K', 'O')\",OTHERS,False\nmp-756149,\"{'Li': 3.0, 'Nb': 4.0, 'Fe': 1.0, 'O': 12.0}\",\"('Fe', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-1186176,\"{'Na': 1.0, 'Sn': 3.0}\",\"('Na', 'Sn')\",OTHERS,False\nmp-675293,\"{'Yb': 2.0, 'Y': 4.0, 'S': 8.0}\",\"('S', 'Y', 'Yb')\",OTHERS,False\nmp-8308,\"{'B': 2.0, 'Ca': 3.0, 'Ni': 7.0}\",\"('B', 'Ca', 'Ni')\",OTHERS,False\nmp-530985,\"{'La': 20.0, 'Mn': 18.0, 'O': 60.0}\",\"('La', 'Mn', 'O')\",OTHERS,False\nmp-11436,\"{'Er': 1.0, 'V': 2.0, 'Ga': 4.0}\",\"('Er', 'Ga', 'V')\",OTHERS,False\nmp-1185050,\"{'La': 2.0, 'Tl': 1.0, 'Ag': 1.0}\",\"('Ag', 'La', 'Tl')\",OTHERS,False\nmp-1225980,\"{'Cu': 19.0, 'Sn': 16.0}\",\"('Cu', 'Sn')\",OTHERS,False\nmp-557407,\"{'K': 6.0, 'Na': 2.0, 'U': 2.0, 'C': 6.0, 'O': 22.0}\",\"('C', 'K', 'Na', 'O', 'U')\",OTHERS,False\nmp-768091,\"{'Li': 8.0, 'Ni': 14.0, 'O': 22.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmvc-10602,\"{'Cr': 6.0, 'P': 6.0, 'O': 26.0}\",\"('Cr', 'O', 'P')\",OTHERS,False\nmp-570451,\"{'Nb': 4.0, 'Te': 6.0}\",\"('Nb', 'Te')\",OTHERS,False\nmp-756258,\"{'Li': 3.0, 'Co': 4.0, 'Cu': 1.0, 'O': 8.0}\",\"('Co', 'Cu', 'Li', 'O')\",OTHERS,False\nmp-541695,\"{'W': 4.0, 'C': 24.0, 'O': 24.0}\",\"('C', 'O', 'W')\",OTHERS,False\nmp-1197831,\"{'Li': 8.0, 'Br': 8.0, 'O': 24.0}\",\"('Br', 'Li', 'O')\",OTHERS,False\nmp-1037722,\"{'Hf': 1.0, 'Mg': 30.0, 'Al': 1.0, 'O': 32.0}\",\"('Al', 'Hf', 'Mg', 'O')\",OTHERS,False\nmp-1199697,\"{'Ce': 12.0, 'Al': 24.0, 'Pt': 16.0}\",\"('Al', 'Ce', 'Pt')\",OTHERS,False\nmp-776417,\"{'Li': 1.0, 'V': 6.0, 'O': 7.0, 'F': 5.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-540632,\"{'Rb': 2.0, 'Ta': 2.0, 'Ge': 6.0, 'O': 18.0}\",\"('Ge', 'O', 'Rb', 'Ta')\",OTHERS,False\nmp-1114397,\"{'Rb': 2.0, 'Y': 1.0, 'In': 1.0, 'F': 6.0}\",\"('F', 'In', 'Rb', 'Y')\",OTHERS,False\nmp-973283,\"{'Ho': 1.0, 'Lu': 1.0, 'Ag': 2.0}\",\"('Ag', 'Ho', 'Lu')\",OTHERS,False\nmp-26407,\"{'Li': 8.0, 'O': 28.0, 'P': 8.0, 'Sn': 4.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-676762,\"{'Yb': 2.0, 'Ce': 4.0, 'S': 8.0}\",\"('Ce', 'S', 'Yb')\",OTHERS,False\nmp-1212695,\"{'Ga': 2.0, 'Hg': 5.0, 'Se': 8.0}\",\"('Ga', 'Hg', 'Se')\",OTHERS,False\nmp-582540,\"{'Eu': 4.0, 'Mo': 4.0, 'O': 16.0, 'F': 4.0}\",\"('Eu', 'F', 'Mo', 'O')\",OTHERS,False\nmp-1227974,\"{'Ba': 1.0, 'Bi': 2.0, 'Br': 2.0, 'O': 2.0}\",\"('Ba', 'Bi', 'Br', 'O')\",OTHERS,False\nmp-1215344,\"{'Zr': 8.0, 'Ag': 1.0, 'Pd': 3.0}\",\"('Ag', 'Pd', 'Zr')\",OTHERS,False\nmp-542292,\"{'Ag': 2.0, 'Mn': 6.0, 'As': 6.0, 'O': 24.0, 'H': 4.0}\",\"('Ag', 'As', 'H', 'Mn', 'O')\",OTHERS,False\nmp-770653,\"{'Sr': 12.0, 'W': 8.0, 'O': 36.0}\",\"('O', 'Sr', 'W')\",OTHERS,False\nmp-1239256,\"{'Zr': 4.0, 'Cr': 4.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cr', 'Cu', 'S', 'Zr')\",OTHERS,False\nmp-775905,\"{'Li': 8.0, 'Mn': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nCd 65 Mg 20 Lu 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Lu': 15.0}\",\"('Cd', 'Lu', 'Mg')\",QC,False\nmp-572621,\"{'Ni': 4.0, 'P': 4.0, 'C': 12.0, 'O': 18.0}\",\"('C', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1209523,\"{'Rb': 6.0, 'Sc': 4.0, 'Br': 18.0}\",\"('Br', 'Rb', 'Sc')\",OTHERS,False\nmp-27941,\"{'O': 12.0, 'Cl': 4.0, 'Ag': 4.0}\",\"('Ag', 'Cl', 'O')\",OTHERS,False\nmp-556282,\"{'Ba': 8.0, 'Al': 4.0, 'In': 4.0, 'O': 20.0}\",\"('Al', 'Ba', 'In', 'O')\",OTHERS,False\nmp-559809,\"{'Rb': 8.0, 'Fe': 4.0, 'O': 10.0}\",\"('Fe', 'O', 'Rb')\",OTHERS,False\nmp-779351,\"{'Li': 4.0, 'Mn': 1.0, 'P': 6.0, 'H': 8.0, 'O': 22.0}\",\"('H', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-755421,\"{'Ca': 6.0, 'Hf': 1.0, 'O': 8.0}\",\"('Ca', 'Hf', 'O')\",OTHERS,False\nmp-1213505,\"{'Er': 8.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Er', 'O')\",OTHERS,False\nmp-1197097,\"{'K': 8.0, 'P': 8.0, 'H': 24.0, 'O': 32.0}\",\"('H', 'K', 'O', 'P')\",OTHERS,False\nmp-1223001,\"{'La': 4.0, 'Th': 4.0, 'U': 4.0, 'S': 20.0}\",\"('La', 'S', 'Th', 'U')\",OTHERS,False\nmp-1226829,\"{'Cd': 4.0, 'In': 1.0, 'Te': 4.0, 'As': 1.0}\",\"('As', 'Cd', 'In', 'Te')\",OTHERS,False\nmvc-11797,\"{'Ca': 2.0, 'Cu': 4.0, 'O': 8.0}\",\"('Ca', 'Cu', 'O')\",OTHERS,False\nmvc-1659,\"{'Zn': 2.0, 'Sb': 4.0, 'O': 12.0}\",\"('O', 'Sb', 'Zn')\",OTHERS,False\nmp-1036104,\"{'Mg': 14.0, 'Mn': 1.0, 'Cr': 1.0, 'O': 16.0}\",\"('Cr', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-1187900,\"{'Yb': 4.0, 'Mg': 2.0}\",\"('Mg', 'Yb')\",OTHERS,False\nmp-698096,\"{'La': 5.0, 'Fe': 1.0, 'Re': 3.0, 'O': 16.0}\",\"('Fe', 'La', 'O', 'Re')\",OTHERS,False\nmp-1246482,\"{'Mg': 2.0, 'Ni': 2.0, 'W': 2.0, 'S': 8.0}\",\"('Mg', 'Ni', 'S', 'W')\",OTHERS,False\nmp-1191803,\"{'Ag': 10.0, 'Te': 2.0, 'P': 2.0, 'O': 8.0}\",\"('Ag', 'O', 'P', 'Te')\",OTHERS,False\nmp-683867,\"{'Tb': 16.0, 'B': 48.0, 'O': 96.0}\",\"('B', 'O', 'Tb')\",OTHERS,False\nmp-1206680,\"{'Li': 2.0, 'Sn': 1.0, 'Pd': 1.0}\",\"('Li', 'Pd', 'Sn')\",OTHERS,False\nmp-2375,\"{'Pd': 3.0, 'Np': 1.0}\",\"('Np', 'Pd')\",OTHERS,False\nmp-1199954,\"{'Mn': 8.0, 'B': 16.0, 'O': 32.0}\",\"('B', 'Mn', 'O')\",OTHERS,False\nmp-1204230,\"{'Sr': 64.0, 'Ga': 32.0, 'O': 112.0}\",\"('Ga', 'O', 'Sr')\",OTHERS,False\nmp-778241,\"{'Li': 2.0, 'V': 3.0, 'F': 8.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1174542,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1205833,\"{'Ba': 2.0, 'Nb': 1.0, 'Rh': 1.0, 'O': 6.0}\",\"('Ba', 'Nb', 'O', 'Rh')\",OTHERS,False\nmp-1184670,\"{'Hf': 6.0, 'Al': 2.0}\",\"('Al', 'Hf')\",OTHERS,False\nmp-19719,\"{'Mn': 2.0, 'Se': 8.0, 'Yb': 4.0}\",\"('Mn', 'Se', 'Yb')\",OTHERS,False\nmvc-2232,\"{'Ba': 4.0, 'Mg': 2.0, 'Fe': 4.0, 'Cu': 2.0, 'F': 28.0}\",\"('Ba', 'Cu', 'F', 'Fe', 'Mg')\",OTHERS,False\nmp-6027,\"{'O': 12.0, 'Cu': 2.0, 'Ba': 4.0, 'Tl': 4.0}\",\"('Ba', 'Cu', 'O', 'Tl')\",OTHERS,False\nmp-1204777,\"{'Zn': 4.0, 'H': 48.0, 'C': 24.0, 'S': 16.0, 'N': 8.0}\",\"('C', 'H', 'N', 'S', 'Zn')\",OTHERS,False\nmp-1221554,\"{'Mn': 2.0, 'Si': 4.0, 'Ni': 2.0}\",\"('Mn', 'Ni', 'Si')\",OTHERS,False\nmp-775748,\"{'Li': 4.0, 'Cr': 3.0, 'Fe': 2.0, 'Sn': 3.0, 'O': 16.0}\",\"('Cr', 'Fe', 'Li', 'O', 'Sn')\",OTHERS,False\nmp-1211634,\"{'K': 2.0, 'Pr': 2.0, 'Cl': 8.0, 'O': 8.0}\",\"('Cl', 'K', 'O', 'Pr')\",OTHERS,False\nmp-768490,\"{'Bi': 8.0, 'S': 12.0, 'O': 48.0}\",\"('Bi', 'O', 'S')\",OTHERS,False\nmp-1198194,\"{'Cs': 2.0, 'P': 4.0, 'H': 10.0, 'O': 16.0}\",\"('Cs', 'H', 'O', 'P')\",OTHERS,False\nmp-557324,\"{'Cs': 2.0, 'Cr': 1.0, 'F': 6.0}\",\"('Cr', 'Cs', 'F')\",OTHERS,False\nmp-1216744,\"{'U': 1.0, 'Al': 8.0, 'Cu': 4.0}\",\"('Al', 'Cu', 'U')\",OTHERS,False\nmp-764273,\"{'Na': 4.0, 'Li': 2.0, 'Mn': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Li', 'Mn', 'Na', 'O', 'P')\",OTHERS,False\nmp-8713,\"{'S': 4.0, 'K': 4.0, 'Mn': 2.0}\",\"('K', 'Mn', 'S')\",OTHERS,False\nmp-766800,\"{'Li': 6.0, 'Fe': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1095778,\"{'Sr': 1.0, 'Pb': 1.0, 'Au': 2.0}\",\"('Au', 'Pb', 'Sr')\",OTHERS,False\nmp-1106187,\"{'Er': 7.0, 'Fe': 1.0, 'I': 12.0}\",\"('Er', 'Fe', 'I')\",OTHERS,False\nmp-1188147,\"{'B': 16.0, 'Os': 4.0}\",\"('B', 'Os')\",OTHERS,False\nmp-1185744,\"{'Mg': 17.0, 'Al': 11.0, 'Rh': 1.0}\",\"('Al', 'Mg', 'Rh')\",OTHERS,False\nmp-757889,\"{'Li': 4.0, 'Sn': 4.0, 'P': 12.0, 'O': 36.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1216438,\"{'V': 2.0, 'Co': 6.0, 'As': 2.0, 'O': 16.0}\",\"('As', 'Co', 'O', 'V')\",OTHERS,False\nmp-1064529,\"{'Rb': 2.0, 'N': 2.0}\",\"('N', 'Rb')\",OTHERS,False\nmp-1222213,\"{'Mg': 4.0, 'Al': 4.0, 'Si': 2.0, 'O': 18.0}\",\"('Al', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1247324,\"{'Re': 8.0, 'Pb': 12.0, 'N': 16.0}\",\"('N', 'Pb', 'Re')\",OTHERS,False\nAl 39 Pd 21 Fe 2,\"{'Al': 39.0, 'Pd': 21.0, 'Fe': 2.0}\",\"('Al', 'Fe', 'Pd')\",AC,False\nmp-1087238,\"{'Y': 2.0, 'Cu': 4.0, 'Sn': 4.0}\",\"('Cu', 'Sn', 'Y')\",OTHERS,False\nmp-1180425,\"{'Mg': 2.0, 'N': 2.0, 'Cl': 6.0, 'O': 12.0}\",\"('Cl', 'Mg', 'N', 'O')\",OTHERS,False\nmp-756689,\"{'La': 4.0, 'Sb': 2.0, 'O': 12.0}\",\"('La', 'O', 'Sb')\",OTHERS,False\nmp-31467,\"{'Ga': 3.0, 'Pd': 7.0}\",\"('Ga', 'Pd')\",OTHERS,False\nmp-22756,\"{'O': 6.0, 'K': 4.0, 'Pb': 2.0}\",\"('K', 'O', 'Pb')\",OTHERS,False\nmp-1094138,\"{'Na': 4.0, 'Co': 8.0, 'P': 8.0, 'O': 36.0}\",\"('Co', 'Na', 'O', 'P')\",OTHERS,False\nmp-675912,\"{'Yb': 4.0, 'Sm': 2.0, 'S': 8.0}\",\"('S', 'Sm', 'Yb')\",OTHERS,False\nmp-1206552,\"{'Ba': 2.0, 'Bi': 2.0, 'Br': 2.0, 'O': 4.0}\",\"('Ba', 'Bi', 'Br', 'O')\",OTHERS,False\nmp-1216581,\"{'V': 4.0, 'Fe': 2.0, 'Si': 2.0}\",\"('Fe', 'Si', 'V')\",OTHERS,False\nmp-772579,\"{'La': 8.0, 'W': 4.0, 'O': 24.0}\",\"('La', 'O', 'W')\",OTHERS,False\nmp-5284,\"{'Si': 2.0, 'Cr': 2.0, 'U': 1.0}\",\"('Cr', 'Si', 'U')\",OTHERS,False\nmp-1174579,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmvc-13134,\"{'Cr': 4.0, 'O': 12.0}\",\"('Cr', 'O')\",OTHERS,False\nmp-504957,\"{'Rb': 6.0, 'Re': 6.0, 'Cl': 24.0}\",\"('Cl', 'Rb', 'Re')\",OTHERS,False\nmp-995200,\"{'H': 2.0, 'C': 6.0}\",\"('C', 'H')\",OTHERS,False\nmp-755052,\"{'Li': 2.0, 'V': 4.0, 'O': 8.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-758539,\"{'Li': 2.0, 'Co': 3.0, 'O': 6.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-767672,\"{'Li': 4.0, 'V': 4.0, 'F': 20.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-9167,\"{'C': 4.0, 'N': 8.0, 'Sr': 4.0}\",\"('C', 'N', 'Sr')\",OTHERS,False\nmp-1221664,\"{'Mn': 1.0, 'Cd': 2.0, 'Te': 3.0}\",\"('Cd', 'Mn', 'Te')\",OTHERS,False\nmp-770170,\"{'Li': 6.0, 'V': 6.0, 'B': 4.0, 'O': 20.0}\",\"('B', 'Li', 'O', 'V')\",OTHERS,False\nmp-679630,\"{'Ba': 4.0, 'Be': 2.0, 'S': 2.0, 'O': 8.0, 'F': 8.0}\",\"('Ba', 'Be', 'F', 'O', 'S')\",OTHERS,False\nmp-758652,\"{'Zn': 2.0, 'Co': 2.0, 'O': 6.0}\",\"('Co', 'O', 'Zn')\",OTHERS,False\nmp-1096845,\"{'Ba': 2.0, 'Ag': 2.0, 'O': 4.0}\",\"('Ag', 'Ba', 'O')\",OTHERS,False\nmp-1223371,\"{'La': 2.0, 'Al': 3.0, 'Ga': 1.0, 'Pd': 4.0}\",\"('Al', 'Ga', 'La', 'Pd')\",OTHERS,False\nmp-1093586,\"{'Hf': 2.0, 'V': 1.0, 'Tc': 1.0}\",\"('Hf', 'Tc', 'V')\",OTHERS,False\nmp-1199260,\"{'B': 4.0, 'P': 8.0, 'Pb': 8.0, 'O': 36.0}\",\"('B', 'O', 'P', 'Pb')\",OTHERS,False\nmp-24234,\"{'H': 16.0, 'N': 4.0, 'O': 4.0, 'S': 4.0, 'Mo': 2.0}\",\"('H', 'Mo', 'N', 'O', 'S')\",OTHERS,False\nmp-1207223,\"{'Zr': 3.0, 'Zn': 3.0, 'Ge': 3.0}\",\"('Ge', 'Zn', 'Zr')\",OTHERS,False\nmp-29209,\"{'Mg': 2.0, 'Ba': 1.0, 'Bi': 2.0}\",\"('Ba', 'Bi', 'Mg')\",OTHERS,False\nmp-559781,\"{'K': 2.0, 'Y': 2.0, 'C': 16.0, 'O': 16.0}\",\"('C', 'K', 'O', 'Y')\",OTHERS,False\nmp-774906,\"{'Li': 8.0, 'Mn': 4.0, 'Ni': 12.0, 'O': 32.0}\",\"('Li', 'Mn', 'Ni', 'O')\",OTHERS,False\nmp-761277,\"{'Li': 4.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1209334,\"{'Rb': 2.0, 'Ho': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Ho', 'O', 'Rb', 'W')\",OTHERS,False\nmp-1229327,\"{'Ba': 8.0, 'Gd': 4.0, 'Cu': 12.0, 'O': 27.0}\",\"('Ba', 'Cu', 'Gd', 'O')\",OTHERS,False\nmp-1244565,\"{'Ca': 2.0, 'Sn': 4.0, 'O': 10.0}\",\"('Ca', 'O', 'Sn')\",OTHERS,False\nmp-780263,\"{'Ba': 24.0, 'Ge': 12.0, 'O': 48.0}\",\"('Ba', 'Ge', 'O')\",OTHERS,False\nmp-1095164,\"{'Gd': 2.0, 'B': 4.0, 'Ru': 4.0}\",\"('B', 'Gd', 'Ru')\",OTHERS,False\nmp-1096534,\"{'Y': 1.0, 'Zr': 1.0, 'Pd': 2.0}\",\"('Pd', 'Y', 'Zr')\",OTHERS,False\nmp-11301,\"{'Cd': 2.0, 'Ho': 1.0}\",\"('Cd', 'Ho')\",OTHERS,False\nmp-676083,\"{'Ce': 4.0, 'U': 2.0, 'Se': 8.0}\",\"('Ce', 'Se', 'U')\",OTHERS,False\nmp-26155,\"{'Li': 2.0, 'O': 24.0, 'P': 8.0, 'Mn': 2.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1223424,\"{'La': 4.0, 'Pr': 1.0, 'Co': 10.0, 'P': 10.0}\",\"('Co', 'La', 'P', 'Pr')\",OTHERS,False\nmp-1180326,\"{'Na': 6.0, 'Np': 2.0, 'O': 12.0}\",\"('Na', 'Np', 'O')\",OTHERS,False\nmp-31433,\"{'Ni': 2.0, 'Sn': 8.0, 'Lu': 2.0}\",\"('Lu', 'Ni', 'Sn')\",OTHERS,False\nmp-541991,\"{'Cu': 6.0, 'Mo': 6.0, 'O': 24.0}\",\"('Cu', 'Mo', 'O')\",OTHERS,False\nmp-5878,\"{'F': 3.0, 'K': 1.0, 'Zn': 1.0}\",\"('F', 'K', 'Zn')\",OTHERS,False\nmp-777593,\"{'Li': 32.0, 'Ti': 3.0, 'Cr': 13.0, 'O': 48.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-752793,\"{'Li': 8.0, 'Ag': 4.0, 'F': 12.0}\",\"('Ag', 'F', 'Li')\",OTHERS,False\nmp-989564,\"{'La': 1.0, 'Os': 1.0, 'N': 3.0}\",\"('La', 'N', 'Os')\",OTHERS,False\nmp-760468,\"{'Li': 2.0, 'Si': 4.0, 'Bi': 2.0, 'O': 12.0}\",\"('Bi', 'Li', 'O', 'Si')\",OTHERS,False\nmp-3035,\"{'Si': 2.0, 'Fe': 2.0, 'Ce': 1.0}\",\"('Ce', 'Fe', 'Si')\",OTHERS,False\nmp-36946,\"{'Tl': 2.0, 'Bi': 2.0, 'S': 4.0}\",\"('Bi', 'S', 'Tl')\",OTHERS,False\nmp-28592,\"{'Li': 7.0, 'O': 2.0, 'Br': 3.0}\",\"('Br', 'Li', 'O')\",OTHERS,False\nmp-1188906,\"{'Sm': 2.0, 'Ga': 2.0, 'Co': 15.0}\",\"('Co', 'Ga', 'Sm')\",OTHERS,False\nmp-10247,\"{'N': 3.0, 'Cr': 1.0, 'U': 2.0}\",\"('Cr', 'N', 'U')\",OTHERS,False\nmp-865902,\"{'Yb': 4.0, 'B': 16.0, 'Os': 4.0}\",\"('B', 'Os', 'Yb')\",OTHERS,False\nmp-1206794,\"{'Li': 1.0, 'Au': 1.0}\",\"('Au', 'Li')\",OTHERS,False\nmp-1037802,\"{'Ca': 1.0, 'Mg': 30.0, 'Mn': 1.0, 'O': 32.0}\",\"('Ca', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-570414,\"{'Tm': 8.0, 'Fe': 56.0, 'C': 4.0}\",\"('C', 'Fe', 'Tm')\",OTHERS,False\nmp-21792,\"{'O': 32.0, 'Na': 40.0, 'Co': 8.0}\",\"('Co', 'Na', 'O')\",OTHERS,False\nmvc-3232,\"{'Zn': 2.0, 'Si': 2.0, 'Ni': 2.0, 'O': 10.0}\",\"('Ni', 'O', 'Si', 'Zn')\",OTHERS,False\nmp-1078033,\"{'U': 1.0, 'Ga': 5.0, 'Rh': 1.0}\",\"('Ga', 'Rh', 'U')\",OTHERS,False\nmp-31337,\"{'Pd': 3.0, 'In': 1.0}\",\"('In', 'Pd')\",OTHERS,False\nmp-20132,\"{'In': 1.0, 'Hg': 1.0}\",\"('Hg', 'In')\",OTHERS,False\nmp-1097671,\"{'Ta': 1.0, 'Be': 1.0, 'Rh': 2.0}\",\"('Be', 'Rh', 'Ta')\",OTHERS,False\nmp-989405,\"{'Cs': 2.0, 'Li': 1.0, 'In': 1.0, 'Br': 6.0}\",\"('Br', 'Cs', 'In', 'Li')\",OTHERS,False\nmp-863669,\"{'Pm': 2.0, 'Cu': 1.0, 'Pt': 1.0}\",\"('Cu', 'Pm', 'Pt')\",OTHERS,False\nmp-26317,\"{'Li': 2.0, 'Cr': 2.0, 'P': 2.0, 'O': 8.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1096445,\"{'Cs': 1.0, 'Rb': 2.0, 'Bi': 1.0}\",\"('Bi', 'Cs', 'Rb')\",OTHERS,False\nmp-834,\"{'N': 1.0, 'Th': 1.0}\",\"('N', 'Th')\",OTHERS,False\nmp-560714,\"{'Ba': 4.0, 'V': 16.0, 'As': 16.0, 'O': 76.0}\",\"('As', 'Ba', 'O', 'V')\",OTHERS,False\nmp-601286,\"{'Tb': 4.0, 'Cu': 4.0, 'Pb': 4.0, 'Se': 12.0}\",\"('Cu', 'Pb', 'Se', 'Tb')\",OTHERS,False\nmp-1174046,\"{'Li': 6.0, 'Mn': 2.0, 'Co': 2.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nAu 60.7 Sn 25.2 Eu 14.1,\"{'Au': 60.7, 'Sn': 25.2, 'Eu': 14.1}\",\"('Au', 'Eu', 'Sn')\",AC,False\nmp-11247,\"{'Li': 3.0, 'Au': 1.0}\",\"('Au', 'Li')\",OTHERS,False\nAl 70 Pd 21 Tc 9,\"{'Al': 70.0, 'Pd': 21.0, 'Tc': 9.0}\",\"('Al', 'Pd', 'Tc')\",QC,False\nmp-6504,\"{'C': 2.0, 'O': 6.0, 'Mg': 1.0, 'Ba': 1.0}\",\"('Ba', 'C', 'Mg', 'O')\",OTHERS,False\nmp-680690,\"{'La': 1.0, 'Cu': 3.0, 'Ru': 4.0, 'O': 12.0}\",\"('Cu', 'La', 'O', 'Ru')\",OTHERS,False\nmp-1189013,\"{'K': 2.0, 'Pt': 1.0, 'N': 4.0, 'O': 10.0}\",\"('K', 'N', 'O', 'Pt')\",OTHERS,False\nmp-779341,\"{'Li': 9.0, 'Mn': 12.0, 'B': 12.0, 'O': 36.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1209044,\"{'Sc': 20.0, 'Sb': 12.0}\",\"('Sb', 'Sc')\",OTHERS,False\nmp-1196608,\"{'Nd': 12.0, 'Tl': 2.0, 'Fe': 26.0}\",\"('Fe', 'Nd', 'Tl')\",OTHERS,False\nmp-559994,\"{'La': 24.0, 'S': 16.0, 'Br': 4.0, 'N': 12.0}\",\"('Br', 'La', 'N', 'S')\",OTHERS,False\nmp-510357,\"{'La': 8.0, 'Br': 10.0, 'B': 8.0}\",\"('B', 'Br', 'La')\",OTHERS,False\nmp-1019108,\"{'Sm': 2.0, 'Co': 2.0, 'Si': 2.0}\",\"('Co', 'Si', 'Sm')\",OTHERS,False\nmp-1191536,\"{'Eu': 2.0, 'Zn': 22.0}\",\"('Eu', 'Zn')\",OTHERS,False\nmp-19039,\"{'O': 8.0, 'Mo': 2.0, 'Cd': 2.0}\",\"('Cd', 'Mo', 'O')\",OTHERS,False\nmp-1066,\"{'N': 1.0, 'Yb': 1.0}\",\"('N', 'Yb')\",OTHERS,False\nmp-1211215,\"{'Li': 8.0, 'Nd': 4.0, 'N': 20.0, 'O': 60.0}\",\"('Li', 'N', 'Nd', 'O')\",OTHERS,False\nmp-19356,\"{'O': 18.0, 'Mn': 6.0, 'Yb': 6.0}\",\"('Mn', 'O', 'Yb')\",OTHERS,False\nmp-1173397,\"{'Sc': 6.0, 'Nb': 2.0, 'O': 14.0}\",\"('Nb', 'O', 'Sc')\",OTHERS,False\nmp-972439,\"{'Zn': 6.0, 'P': 4.0, 'O': 16.0}\",\"('O', 'P', 'Zn')\",OTHERS,False\nmp-1227705,\"{'Ba': 1.0, 'Sr': 1.0, 'Ca': 1.0, 'Mg': 1.0, 'Si': 2.0, 'O': 8.0}\",\"('Ba', 'Ca', 'Mg', 'O', 'Si', 'Sr')\",OTHERS,False\nmp-6574,\"{'C': 1.0, 'N': 2.0, 'O': 2.0, 'Er': 2.0}\",\"('C', 'Er', 'N', 'O')\",OTHERS,False\nmvc-657,\"{'Fe': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Fe', 'O', 'W')\",OTHERS,False\nmp-675374,\"{'Al': 4.0, 'Pb': 2.0, 'Se': 8.0}\",\"('Al', 'Pb', 'Se')\",OTHERS,False\nmp-1214906,\"{'Ag': 2.0, 'Mo': 2.0, 'O': 8.0}\",\"('Ag', 'Mo', 'O')\",OTHERS,False\nmp-13283,\"{'S': 12.0, 'Sm': 2.0, 'Er': 6.0}\",\"('Er', 'S', 'Sm')\",OTHERS,False\nmp-1179608,\"{'S': 2.0, 'O': 8.0}\",\"('O', 'S')\",OTHERS,False\nmp-616615,\"{'Hf': 16.0, 'Mn': 2.0, 'Te': 12.0}\",\"('Hf', 'Mn', 'Te')\",OTHERS,False\nmp-1189383,\"{'Li': 4.0, 'Cd': 2.0, 'Ge': 2.0, 'S': 8.0}\",\"('Cd', 'Ge', 'Li', 'S')\",OTHERS,False\nmp-1222873,\"{'Li': 2.0, 'Al': 1.0, 'Ni': 3.0, 'O': 6.0}\",\"('Al', 'Li', 'Ni', 'O')\",OTHERS,False\nAl 70.5 Pd 21 Mn 8.5,\"{'Al': 70.5, 'Pd': 21.0, 'Mn': 8.5}\",\"('Al', 'Mn', 'Pd')\",QC,False\nmp-625211,\"{'Li': 2.0, 'H': 6.0, 'O': 4.0}\",\"('H', 'Li', 'O')\",OTHERS,False\nmp-1245835,\"{'Pd': 2.0, 'C': 4.0, 'N': 4.0}\",\"('C', 'N', 'Pd')\",OTHERS,False\nmp-1200792,\"{'Fe': 4.0, 'P': 16.0, 'C': 16.0, 'O': 40.0}\",\"('C', 'Fe', 'O', 'P')\",OTHERS,False\nmp-1175669,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-22417,\"{'Li': 4.0, 'O': 16.0, 'P': 4.0, 'Ni': 4.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-631267,\"{'Ta': 1.0, 'Fe': 1.0, 'Sb': 1.0}\",\"('Fe', 'Sb', 'Ta')\",OTHERS,False\nmp-1222349,\"{'Li': 2.0, 'Ge': 2.0, 'Rh': 2.0, 'O': 8.0}\",\"('Ge', 'Li', 'O', 'Rh')\",OTHERS,False\nmp-1076897,\"{'Ca': 28.0, 'Mg': 4.0, 'Mn': 32.0, 'O': 80.0}\",\"('Ca', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-619577,\"{'K': 16.0, 'V': 16.0, 'P': 32.0, 'O': 120.0}\",\"('K', 'O', 'P', 'V')\",OTHERS,False\nmp-1227547,\"{'Cu': 6.0, 'Pb': 2.0, 'Se': 6.0, 'N': 2.0, 'O': 27.0}\",\"('Cu', 'N', 'O', 'Pb', 'Se')\",OTHERS,False\nmp-1147764,\"{'Na': 4.0, 'Cu': 2.0, 'I': 4.0, 'Cl': 4.0}\",\"('Cl', 'Cu', 'I', 'Na')\",OTHERS,False\nmp-983388,\"{'K': 3.0, 'Hg': 1.0}\",\"('Hg', 'K')\",OTHERS,False\nmp-722979,\"{'K': 4.0, 'Zn': 2.0, 'H': 16.0, 'N': 8.0}\",\"('H', 'K', 'N', 'Zn')\",OTHERS,False\nmp-1176187,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-560223,\"{'K': 8.0, 'Se': 4.0, 'S': 8.0, 'O': 24.0}\",\"('K', 'O', 'S', 'Se')\",OTHERS,False\nmp-1217234,\"{'Ti': 8.0, 'Co': 3.0, 'Ni': 1.0, 'Sn': 4.0}\",\"('Co', 'Ni', 'Sn', 'Ti')\",OTHERS,False\nmp-1093568,\"{'Y': 1.0, 'Zn': 2.0, 'Pd': 1.0}\",\"('Pd', 'Y', 'Zn')\",OTHERS,False\nmp-1040315,\"{'K': 1.0, 'Mg': 30.0, 'B': 1.0, 'O': 31.0}\",\"('B', 'K', 'Mg', 'O')\",OTHERS,False\nmp-771282,\"{'Li': 24.0, 'Ti': 7.0, 'Cr': 5.0, 'O': 36.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-758332,\"{'Ca': 4.0, 'Gd': 16.0, 'O': 28.0}\",\"('Ca', 'Gd', 'O')\",OTHERS,False\nmvc-8343,\"{'Ca': 4.0, 'Cr': 4.0, 'Ni': 4.0, 'P': 8.0, 'O': 36.0}\",\"('Ca', 'Cr', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1097023,\"{'K': 4.0, 'Fe': 4.0, 'O': 12.0}\",\"('Fe', 'K', 'O')\",OTHERS,False\nmp-752931,\"{'Li': 2.0, 'Mn': 1.0, 'F': 4.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-774311,\"{'Li': 12.0, 'Mn': 4.0, 'V': 4.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1189104,\"{'Eu': 6.0, 'Ga': 4.0, 'P': 8.0}\",\"('Eu', 'Ga', 'P')\",OTHERS,False\nmp-570759,\"{'Tb': 8.0, 'Bi': 6.0}\",\"('Bi', 'Tb')\",OTHERS,False\nmp-582084,\"{'Cd': 18.0, 'I': 36.0}\",\"('Cd', 'I')\",OTHERS,False\nmp-1198634,\"{'Yb': 2.0, 'P': 6.0, 'H': 12.0, 'O': 12.0}\",\"('H', 'O', 'P', 'Yb')\",OTHERS,False\nmp-1214425,\"{'C': 96.0, 'Br': 8.0, 'F': 72.0}\",\"('Br', 'C', 'F')\",OTHERS,False\nmp-758373,\"{'Li': 8.0, 'Co': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,False\nmp-1218226,\"{'Sr': 2.0, 'La': 2.0, 'Ga': 2.0, 'Cu': 2.0, 'O': 10.0}\",\"('Cu', 'Ga', 'La', 'O', 'Sr')\",OTHERS,False\nmp-1095715,\"{'Ca': 1.0, 'La': 1.0, 'Rh': 2.0}\",\"('Ca', 'La', 'Rh')\",OTHERS,False\nmp-14883,\"{'S': 10.0, 'Zr': 3.0, 'Ba': 4.0}\",\"('Ba', 'S', 'Zr')\",OTHERS,False\nmp-24664,\"{'H': 16.0, 'C': 4.0, 'N': 8.0, 'O': 4.0, 'Cl': 4.0, 'Zn': 2.0}\",\"('C', 'Cl', 'H', 'N', 'O', 'Zn')\",OTHERS,False\nmp-850538,\"{'Mn': 2.0, 'Fe': 3.0, 'Sn': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Mn', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1225646,\"{'Dy': 12.0, 'Cu': 4.0, 'Se': 24.0}\",\"('Cu', 'Dy', 'Se')\",OTHERS,False\nmp-1196142,\"{'Te': 8.0, 'N': 4.0, 'O': 24.0}\",\"('N', 'O', 'Te')\",OTHERS,False\nmp-1239184,\"{'Cr': 8.0, 'Hg': 4.0, 'S': 16.0}\",\"('Cr', 'Hg', 'S')\",OTHERS,False\nmp-8720,\"{'Mn': 2.0, 'Rb': 4.0, 'Te': 4.0}\",\"('Mn', 'Rb', 'Te')\",OTHERS,False\nmp-677349,\"{'Li': 22.0, 'Mn': 2.0, 'As': 12.0}\",\"('As', 'Li', 'Mn')\",OTHERS,False\nmp-1217575,\"{'Th': 14.0, 'Ag': 51.0}\",\"('Ag', 'Th')\",OTHERS,False\nmp-1205783,\"{'Na': 1.0, 'Sc': 1.0, 'N': 2.0, 'F': 6.0}\",\"('F', 'N', 'Na', 'Sc')\",OTHERS,False\nmp-675711,\"{'Li': 2.0, 'Mo': 12.0, 'S': 16.0}\",\"('Li', 'Mo', 'S')\",OTHERS,False\nmp-770619,\"{'Li': 24.0, 'Mn': 11.0, 'Cr': 1.0, 'O': 36.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1025084,\"{'Ho': 2.0, 'B': 2.0, 'C': 2.0}\",\"('B', 'C', 'Ho')\",OTHERS,False\nmvc-8947,\"{'Ca': 2.0, 'La': 2.0, 'Fe': 2.0, 'Ni': 2.0, 'O': 12.0}\",\"('Ca', 'Fe', 'La', 'Ni', 'O')\",OTHERS,False\nmp-1186661,\"{'Pu': 1.0, 'Cl': 1.0}\",\"('Cl', 'Pu')\",OTHERS,False\nmp-685369,\"{'Ti': 6.0, 'Fe': 14.0, 'O': 30.0}\",\"('Fe', 'O', 'Ti')\",OTHERS,False\nmp-7921,\"{'F': 6.0, 'Mg': 1.0, 'Pd': 1.0}\",\"('F', 'Mg', 'Pd')\",OTHERS,False\nmp-541047,\"{'Al': 1.0, 'Pd': 2.0, 'Zr': 1.0}\",\"('Al', 'Pd', 'Zr')\",OTHERS,False\nmp-1246515,\"{'Ca': 12.0, 'Te': 6.0, 'N': 4.0}\",\"('Ca', 'N', 'Te')\",OTHERS,False\nmp-28550,\"{'F': 14.0, 'Ag': 3.0, 'Hf': 2.0}\",\"('Ag', 'F', 'Hf')\",OTHERS,False\nmp-23194,\"{'La': 1.0, 'I': 2.0}\",\"('I', 'La')\",OTHERS,False\nmp-1201679,\"{'Ba': 4.0, 'La': 8.0, 'W': 4.0, 'O': 28.0}\",\"('Ba', 'La', 'O', 'W')\",OTHERS,False\nmp-753188,\"{'Li': 5.0, 'Mn': 2.0, 'Co': 5.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-19112,\"{'O': 8.0, 'S': 2.0, 'Fe': 2.0}\",\"('Fe', 'O', 'S')\",OTHERS,False\nmp-21895,\"{'Na': 30.0, 'Pb': 8.0}\",\"('Na', 'Pb')\",OTHERS,False\nmp-982243,\"{'Y': 6.0, 'Sn': 2.0}\",\"('Sn', 'Y')\",OTHERS,False\nmp-12466,\"{'Fe': 2.0, 'Se': 4.0, 'Pd': 4.0}\",\"('Fe', 'Pd', 'Se')\",OTHERS,False\nmp-669913,\"{'Sr': 4.0, 'Pb': 6.0}\",\"('Pb', 'Sr')\",OTHERS,False\nmvc-13624,\"{'Ca': 1.0, 'La': 2.0, 'Ti': 1.0, 'O': 6.0}\",\"('Ca', 'La', 'O', 'Ti')\",OTHERS,False\nmp-759047,\"{'Li': 12.0, 'Cr': 3.0, 'P': 6.0, 'O': 24.0, 'F': 6.0}\",\"('Cr', 'F', 'Li', 'O', 'P')\",OTHERS,False\nmp-1199246,\"{'Ba': 10.0, 'B': 6.0, 'Br': 2.0, 'O': 18.0}\",\"('B', 'Ba', 'Br', 'O')\",OTHERS,False\nmp-775072,\"{'Li': 4.0, 'Mn': 3.0, 'Cu': 2.0, 'Sb': 3.0, 'O': 16.0}\",\"('Cu', 'Li', 'Mn', 'O', 'Sb')\",OTHERS,False\nmp-1188841,\"{'Ba': 1.0, 'Nb': 2.0, 'V': 2.0, 'O': 11.0}\",\"('Ba', 'Nb', 'O', 'V')\",OTHERS,False\nmp-3782,\"{'O': 24.0, 'Sb': 10.0, 'Nd': 6.0}\",\"('Nd', 'O', 'Sb')\",OTHERS,False\nmp-1112894,\"{'Cs': 2.0, 'In': 1.0, 'As': 1.0, 'Cl': 6.0}\",\"('As', 'Cl', 'Cs', 'In')\",OTHERS,False\nmp-675755,\"{'Ti': 1.0, 'Cu': 3.0, 'O': 4.0}\",\"('Cu', 'O', 'Ti')\",OTHERS,False\nmp-752935,\"{'Li': 2.0, 'Fe': 4.0, 'O': 8.0}\",\"('Fe', 'Li', 'O')\",OTHERS,False\nmp-1079395,\"{'Ce': 4.0, 'Ge': 4.0}\",\"('Ce', 'Ge')\",OTHERS,False\nmp-777583,\"{'Li': 8.0, 'Mn': 3.0, 'Fe': 5.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-812,\"{'O': 24.0, 'Ho': 16.0}\",\"('Ho', 'O')\",OTHERS,False\nmp-24798,\"{'H': 12.0, 'B': 12.0, 'Cl': 1.0, 'Rb': 3.0}\",\"('B', 'Cl', 'H', 'Rb')\",OTHERS,False\nmvc-2321,\"{'Ba': 4.0, 'Mg': 2.0, 'Co': 4.0, 'Cu': 2.0, 'F': 28.0}\",\"('Ba', 'Co', 'Cu', 'F', 'Mg')\",OTHERS,False\nmp-1176570,\"{'Mn': 3.0, 'Ni': 1.0, 'Sn': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Mn', 'Ni', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1183235,\"{'Ac': 1.0, 'Nd': 3.0}\",\"('Ac', 'Nd')\",OTHERS,False\nmp-6073,\"{'O': 48.0, 'Mg': 12.0, 'Al': 8.0, 'Si': 12.0}\",\"('Al', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1209845,\"{'Nd': 4.0, 'Si': 4.0, 'Pd': 8.0}\",\"('Nd', 'Pd', 'Si')\",OTHERS,False\nmp-758399,\"{'Li': 6.0, 'V': 3.0, 'Cr': 3.0, 'P': 6.0, 'H': 6.0, 'O': 30.0}\",\"('Cr', 'H', 'Li', 'O', 'P', 'V')\",OTHERS,False\nZn 76 Yb 14 Mg 10,\"{'Zn': 76.0, 'Yb': 14.0, 'Mg': 10.0}\",\"('Mg', 'Yb', 'Zn')\",QC,False\nmp-1024052,\"{'Na': 8.0, 'Zn': 4.0, 'Se': 8.0}\",\"('Na', 'Se', 'Zn')\",OTHERS,False\nmp-570807,\"{'Sr': 4.0, 'In': 13.0, 'Au': 9.0}\",\"('Au', 'In', 'Sr')\",OTHERS,False\nmp-1782,\"{'Sc': 1.0, 'Se': 1.0}\",\"('Sc', 'Se')\",OTHERS,False\nmp-1222754,\"{'La': 1.0, 'Y': 1.0, 'Mg': 6.0}\",\"('La', 'Mg', 'Y')\",OTHERS,False\nmp-1178224,\"{'Fe': 4.0, 'O': 4.0, 'F': 4.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-11327,\"{'Se': 1.0, 'Rb': 2.0}\",\"('Rb', 'Se')\",OTHERS,False\nmp-1184476,\"{'Gd': 2.0, 'In': 1.0, 'Hg': 1.0}\",\"('Gd', 'Hg', 'In')\",OTHERS,False\nmp-558982,\"{'Hg': 4.0, 'C': 8.0, 'O': 8.0, 'F': 12.0}\",\"('C', 'F', 'Hg', 'O')\",OTHERS,False\nmp-1245091,\"{'Cr': 32.0, 'O': 48.0}\",\"('Cr', 'O')\",OTHERS,False\nmp-7795,\"{'Rb': 1.0, 'Sn': 1.0, 'S': 2.0}\",\"('Rb', 'S', 'Sn')\",OTHERS,False\nmp-723002,\"{'Ag': 4.0, 'H': 24.0, 'S': 2.0, 'N': 8.0, 'O': 8.0}\",\"('Ag', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-1080016,\"{'Tl': 6.0, 'Ir': 2.0}\",\"('Ir', 'Tl')\",OTHERS,False\nmp-20353,\"{'Ga': 2.0, 'Gd': 2.0}\",\"('Ga', 'Gd')\",OTHERS,False\nmp-574486,\"{'Ag': 8.0, 'C': 4.0, 'N': 8.0}\",\"('Ag', 'C', 'N')\",OTHERS,False\nmp-1203864,\"{'B': 8.0, 'P': 24.0, 'Pb': 24.0, 'O': 96.0}\",\"('B', 'O', 'P', 'Pb')\",OTHERS,False\nmp-768846,\"{'Rb': 2.0, 'Fe': 4.0, 'O': 7.0}\",\"('Fe', 'O', 'Rb')\",OTHERS,False\nmvc-6932,\"{'Ca': 2.0, 'Cr': 4.0, 'O': 8.0}\",\"('Ca', 'Cr', 'O')\",OTHERS,False\nmp-9771,\"{'O': 6.0, 'Ti': 2.0, 'U': 1.0}\",\"('O', 'Ti', 'U')\",OTHERS,False\nmp-774237,\"{'Li': 5.0, 'Cr': 2.0, 'Ni': 5.0, 'O': 12.0}\",\"('Cr', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-1203988,\"{'H': 30.0, 'Pd': 2.0, 'Ru': 2.0, 'N': 18.0, 'O': 22.0}\",\"('H', 'N', 'O', 'Pd', 'Ru')\",OTHERS,False\nmp-757668,\"{'Li': 4.0, 'Mn': 3.0, 'Ni': 2.0, 'Sb': 3.0, 'O': 16.0}\",\"('Li', 'Mn', 'Ni', 'O', 'Sb')\",OTHERS,False\nmp-1177871,\"{'Li': 2.0, 'Nb': 1.0, 'Co': 3.0, 'O': 8.0}\",\"('Co', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-1209024,\"{'Sc': 12.0, 'Sn': 10.0}\",\"('Sc', 'Sn')\",OTHERS,False\nmp-19803,\"{'O': 8.0, 'Cd': 2.0, 'In': 4.0}\",\"('Cd', 'In', 'O')\",OTHERS,False\nmp-752820,\"{'Li': 4.0, 'V': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1228657,\"{'B': 4.0, 'Ru': 2.0, 'W': 2.0}\",\"('B', 'Ru', 'W')\",OTHERS,False\nmp-1101695,\"{'Na': 2.0, 'Fe': 24.0, 'O': 38.0}\",\"('Fe', 'Na', 'O')\",OTHERS,False\nmp-1175904,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-779498,\"{'Ba': 24.0, 'Cl': 16.0, 'O': 16.0}\",\"('Ba', 'Cl', 'O')\",OTHERS,False\nmp-1192618,\"{'Nb': 8.0, 'Fe': 8.0, 'Si': 14.0}\",\"('Fe', 'Nb', 'Si')\",OTHERS,False\nmp-19875,\"{'Si': 2.0, 'Ru': 2.0, 'Gd': 2.0}\",\"('Gd', 'Ru', 'Si')\",OTHERS,False\nmp-1104829,\"{'Nb': 5.0, 'Sn': 1.0, 'Se': 8.0}\",\"('Nb', 'Se', 'Sn')\",OTHERS,False\nmp-1185170,\"{'La': 3.0, 'Lu': 1.0}\",\"('La', 'Lu')\",OTHERS,False\nmp-865429,\"{'Yb': 1.0, 'Y': 1.0, 'Rh': 2.0}\",\"('Rh', 'Y', 'Yb')\",OTHERS,False\nmp-1184327,\"{'Eu': 3.0, 'V': 1.0}\",\"('Eu', 'V')\",OTHERS,False\nmp-1173284,\"{'Sr': 24.0, 'Fe': 12.0, 'Mo': 12.0, 'O': 72.0}\",\"('Fe', 'Mo', 'O', 'Sr')\",OTHERS,False\nmp-995122,\"{'Nb': 1.0, 'S': 2.0}\",\"('Nb', 'S')\",OTHERS,False\nmp-1193749,\"{'Rb': 4.0, 'Mg': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Mg', 'O', 'P', 'Rb')\",OTHERS,False\nmp-1100345,\"{'Ca': 2.0, 'Sn': 2.0, 'S': 6.0}\",\"('Ca', 'S', 'Sn')\",OTHERS,False\nmp-3779,\"{'Si': 2.0, 'Cr': 2.0, 'Te': 6.0}\",\"('Cr', 'Si', 'Te')\",OTHERS,False\nmp-1223321,\"{'K': 4.0, 'Ta': 4.0, 'Si': 8.0, 'O': 28.0}\",\"('K', 'O', 'Si', 'Ta')\",OTHERS,False\nmp-760022,\"{'Mn': 12.0, 'O': 10.0, 'F': 14.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1206382,\"{'Tm': 2.0, 'Ni': 2.0, 'Pb': 1.0}\",\"('Ni', 'Pb', 'Tm')\",OTHERS,False\nmp-561712,\"{'Cs': 4.0, 'Er': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Cs', 'Er', 'O', 'P')\",OTHERS,False\nmp-1066131,\"{'Y': 1.0, 'Tl': 1.0, 'S': 2.0}\",\"('S', 'Tl', 'Y')\",OTHERS,False\nmp-865751,\"{'Yb': 1.0, 'Dy': 1.0, 'Rh': 2.0}\",\"('Dy', 'Rh', 'Yb')\",OTHERS,False\nmp-1184505,\"{'Gd': 1.0, 'Pa': 1.0, 'Tc': 2.0}\",\"('Gd', 'Pa', 'Tc')\",OTHERS,False\nmp-1215634,\"{'Zr': 4.0, 'Te': 6.0}\",\"('Te', 'Zr')\",OTHERS,False\nmp-554461,\"{'K': 2.0, 'Os': 4.0, 'O': 12.0}\",\"('K', 'O', 'Os')\",OTHERS,False\nmp-755927,\"{'Li': 2.0, 'Cr': 3.0, 'Fe': 1.0, 'O': 8.0}\",\"('Cr', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-861894,\"{'Li': 2.0, 'La': 1.0, 'Sn': 1.0}\",\"('La', 'Li', 'Sn')\",OTHERS,False\nmp-1222347,\"{'Li': 2.0, 'Ti': 2.0, 'Cr': 2.0, 'O': 8.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-1216437,\"{'V': 6.0, 'Ge': 1.0, 'Os': 1.0}\",\"('Ge', 'Os', 'V')\",OTHERS,False\nmp-1221259,\"{'Na': 3.0, 'Ca': 1.0, 'Mg': 1.0, 'Cr': 3.0, 'Si': 8.0, 'O': 24.0}\",\"('Ca', 'Cr', 'Mg', 'Na', 'O', 'Si')\",OTHERS,False\nmp-559871,\"{'Al': 6.0, 'F': 18.0}\",\"('Al', 'F')\",OTHERS,False\nmp-35031,\"{'Cu': 1.0, 'Pr': 5.0, 'Se': 8.0}\",\"('Cu', 'Pr', 'Se')\",OTHERS,False\nmp-600029,\"{'Si': 24.0, 'O': 48.0}\",\"('O', 'Si')\",OTHERS,False\nmp-757062,\"{'Li': 4.0, 'Nb': 3.0, 'V': 3.0, 'Sn': 2.0, 'O': 16.0}\",\"('Li', 'Nb', 'O', 'Sn', 'V')\",OTHERS,False\nmp-1212579,\"{'H': 24.0, 'C': 24.0, 'N': 40.0}\",\"('C', 'H', 'N')\",OTHERS,False\nmp-1175048,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-556289,\"{'Na': 8.0, 'Er': 4.0, 'Mo': 4.0, 'P': 4.0, 'O': 32.0}\",\"('Er', 'Mo', 'Na', 'O', 'P')\",OTHERS,False\nmp-1246047,\"{'Te': 2.0, 'C': 2.0, 'N': 4.0}\",\"('C', 'N', 'Te')\",OTHERS,False\nmp-2176,\"{'Zn': 1.0, 'Te': 1.0}\",\"('Te', 'Zn')\",OTHERS,False\nmp-1202079,\"{'Ti': 42.0, 'Mn': 50.0}\",\"('Mn', 'Ti')\",OTHERS,False\nmvc-5090,\"{'Ca': 4.0, 'Ti': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Ca', 'O', 'Ti', 'W')\",OTHERS,False\nmp-984716,\"{'Ca': 1.0, 'Sn': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Ca', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1175920,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-566602,\"{'La': 4.0, 'Mn': 4.0, 'O': 12.0}\",\"('La', 'Mn', 'O')\",OTHERS,False\nmp-1079810,\"{'Hf': 3.0, 'Sn': 6.0}\",\"('Hf', 'Sn')\",OTHERS,False\nmp-505042,\"{'Bi': 8.0, 'Cu': 4.0, 'O': 16.0}\",\"('Bi', 'Cu', 'O')\",OTHERS,False\nmp-36526,\"{'Ac': 1.0, 'F': 1.0, 'O': 1.0}\",\"('Ac', 'F', 'O')\",OTHERS,False\nmp-683950,\"{'Ca': 20.0, 'Pr': 8.0, 'Cu': 48.0, 'O': 82.0}\",\"('Ca', 'Cu', 'O', 'Pr')\",OTHERS,False\nmp-777883,\"{'Ba': 24.0, 'Y': 4.0, 'Cl': 60.0}\",\"('Ba', 'Cl', 'Y')\",OTHERS,False\nAl 70 Ni 20 Rh 10,\"{'Al': 70.0, 'Ni': 20.0, 'Rh': 10.0}\",\"('Al', 'Ni', 'Rh')\",QC,False\nmp-558048,\"{'Na': 2.0, 'V': 2.0, 'Ge': 4.0, 'O': 12.0}\",\"('Ge', 'Na', 'O', 'V')\",OTHERS,False\nmp-1204281,\"{'Hf': 12.0, 'Ge': 24.0, 'Ru': 12.0}\",\"('Ge', 'Hf', 'Ru')\",OTHERS,False\nmp-1216310,\"{'V': 2.0, 'Mo': 2.0, 'As': 4.0}\",\"('As', 'Mo', 'V')\",OTHERS,False\nmp-1102373,\"{'Y': 4.0, 'Ge': 4.0, 'Ir': 4.0}\",\"('Ge', 'Ir', 'Y')\",OTHERS,False\nmp-975051,\"{'Rb': 3.0, 'Ag': 1.0}\",\"('Ag', 'Rb')\",OTHERS,False\nmp-1183999,\"{'Cs': 1.0, 'Yb': 3.0}\",\"('Cs', 'Yb')\",OTHERS,False\nmp-1222787,\"{'La': 2.0, 'Ti': 2.0, 'Nb': 2.0, 'O': 12.0}\",\"('La', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-1195884,\"{'K': 4.0, 'Nd': 2.0, 'N': 10.0, 'O': 34.0}\",\"('K', 'N', 'Nd', 'O')\",OTHERS,False\nmp-1185611,\"{'Lu': 3.0, 'Pu': 1.0}\",\"('Lu', 'Pu')\",OTHERS,False\nmp-771523,\"{'Li': 4.0, 'Cr': 8.0, 'O': 16.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-541997,\"{'K': 12.0, 'Fe': 4.0, 'Se': 12.0}\",\"('Fe', 'K', 'Se')\",OTHERS,False\nmp-16037,\"{'O': 2.0, 'Te': 1.0, 'Dy': 2.0}\",\"('Dy', 'O', 'Te')\",OTHERS,False\nmp-1190394,\"{'Nd': 8.0, 'Fe': 2.0, 'S': 12.0, 'O': 2.0}\",\"('Fe', 'Nd', 'O', 'S')\",OTHERS,False\nmp-1099080,\"{'Mg': 14.0, 'Fe': 1.0, 'Co': 1.0}\",\"('Co', 'Fe', 'Mg')\",OTHERS,False\nmp-1245707,\"{'Sb': 2.0, 'Te': 2.0, 'N': 2.0}\",\"('N', 'Sb', 'Te')\",OTHERS,False\nmp-705526,\"{'H': 64.0, 'Au': 4.0, 'C': 24.0, 'S': 8.0, 'N': 16.0, 'Cl': 4.0, 'O': 16.0}\",\"('Au', 'C', 'Cl', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-31378,\"{'O': 52.0, 'Cr': 16.0, 'Cs': 8.0}\",\"('Cr', 'Cs', 'O')\",OTHERS,False\nmp-267,\"{'Ru': 2.0, 'Te': 4.0}\",\"('Ru', 'Te')\",OTHERS,False\nmp-504357,\"{'Cr': 16.0, 'P': 12.0, 'O': 48.0}\",\"('Cr', 'O', 'P')\",OTHERS,False\nmp-1224618,\"{'Ho': 5.0, 'Co': 19.0, 'P': 12.0}\",\"('Co', 'Ho', 'P')\",OTHERS,False\nmp-1190699,\"{'C': 8.0, 'O': 16.0}\",\"('C', 'O')\",OTHERS,False\nmp-1217824,\"{'Ta': 1.0, 'V': 1.0, 'C': 1.0, 'N': 1.0}\",\"('C', 'N', 'Ta', 'V')\",OTHERS,False\nmp-21683,\"{'In': 2.0, 'Ni': 21.0, 'P': 6.0}\",\"('In', 'Ni', 'P')\",OTHERS,False\nmp-754078,\"{'Li': 1.0, 'Fe': 2.0, 'P': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1226274,\"{'Cs': 2.0, 'K': 1.0, 'Ti': 1.0, 'O': 2.0, 'F': 3.0}\",\"('Cs', 'F', 'K', 'O', 'Ti')\",OTHERS,False\nmp-560022,\"{'Ba': 18.0, 'Nb': 4.0, 'C': 2.0, 'N': 20.0, 'O': 2.0}\",\"('Ba', 'C', 'N', 'Nb', 'O')\",OTHERS,False\nmp-1187717,{'Y': 4.0},\"('Y',)\",OTHERS,False\nmp-1103473,\"{'Cs': 1.0, 'Cr': 1.0, 'P': 2.0, 'S': 7.0}\",\"('Cr', 'Cs', 'P', 'S')\",OTHERS,False\nmp-24066,\"{'H': 2.0, 'O': 2.0, 'Cl': 2.0, 'Sr': 2.0}\",\"('Cl', 'H', 'O', 'Sr')\",OTHERS,False\nmp-557825,\"{'H': 8.0, 'C': 2.0, 'N': 4.0, 'O': 2.0}\",\"('C', 'H', 'N', 'O')\",OTHERS,False\nmp-974469,\"{'Re': 2.0, 'Te': 2.0}\",\"('Re', 'Te')\",OTHERS,False\nmp-1189057,\"{'Lu': 4.0, 'Ge': 4.0, 'Pd': 8.0}\",\"('Ge', 'Lu', 'Pd')\",OTHERS,False\nmp-1235846,\"{'Sr': 2.0, 'Li': 1.0, 'O': 12.0}\",\"('Li', 'O', 'Sr')\",OTHERS,False\nmp-556459,\"{'V': 2.0, 'P': 2.0, 'O': 10.0}\",\"('O', 'P', 'V')\",OTHERS,False\nmp-1245656,\"{'K': 2.0, 'Pd': 2.0, 'N': 2.0}\",\"('K', 'N', 'Pd')\",OTHERS,False\nmp-1220381,\"{'Nb': 6.0, 'Ga': 1.0, 'Ge': 1.0}\",\"('Ga', 'Ge', 'Nb')\",OTHERS,False\nmp-675743,\"{'Mg': 2.0, 'Mo': 12.0, 'Se': 16.0}\",\"('Mg', 'Mo', 'Se')\",OTHERS,False\nmp-1184233,\"{'Er': 1.0, 'Mg': 1.0, 'Ag': 2.0}\",\"('Ag', 'Er', 'Mg')\",OTHERS,False\nmp-1094804,\"{'Mg': 4.0, 'Cd': 8.0}\",\"('Cd', 'Mg')\",OTHERS,False\nmp-560090,\"{'Mn': 4.0, 'Ni': 12.0, 'Te': 6.0, 'Pb': 2.0, 'O': 36.0}\",\"('Mn', 'Ni', 'O', 'Pb', 'Te')\",OTHERS,False\nmp-4788,\"{'O': 12.0, 'K': 2.0, 'Os': 4.0}\",\"('K', 'O', 'Os')\",OTHERS,False\nmp-734561,\"{'Rb': 6.0, 'P': 6.0, 'H': 8.0, 'O': 24.0}\",\"('H', 'O', 'P', 'Rb')\",OTHERS,False\nmp-755567,\"{'Fe': 6.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1104131,\"{'Nb': 2.0, 'P': 2.0, 'O': 10.0}\",\"('Nb', 'O', 'P')\",OTHERS,False\nmp-707290,\"{'Nb': 20.0, 'Pb': 28.0, 'O': 78.0}\",\"('Nb', 'O', 'Pb')\",OTHERS,False\nmp-1219465,\"{'Sm': 4.0, 'Re': 12.0, 'O': 60.0}\",\"('O', 'Re', 'Sm')\",OTHERS,False\nmp-1212327,\"{'Ho': 16.0, 'Al': 8.0, 'O': 36.0}\",\"('Al', 'Ho', 'O')\",OTHERS,False\nmp-752651,\"{'Li': 4.0, 'Ti': 2.0, 'Nb': 3.0, 'Cu': 3.0, 'O': 16.0}\",\"('Cu', 'Li', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-1194276,\"{'Ca': 4.0, 'Ho': 8.0, 'S': 16.0}\",\"('Ca', 'Ho', 'S')\",OTHERS,False\nmp-1225693,\"{'Dy': 1.0, 'Mn': 2.0, 'Si': 1.0, 'Ge': 1.0}\",\"('Dy', 'Ge', 'Mn', 'Si')\",OTHERS,False\nmp-11873,\"{'As': 1.0, 'Pd': 5.0, 'Tl': 1.0}\",\"('As', 'Pd', 'Tl')\",OTHERS,False\nmp-778809,\"{'Fe': 10.0, 'O': 14.0, 'F': 6.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-8219,\"{'P': 2.0, 'Cu': 2.0, 'Zr': 1.0}\",\"('Cu', 'P', 'Zr')\",OTHERS,False\nmp-1191259,\"{'Cu': 3.0, 'Bi': 2.0, 'P': 2.0, 'O': 14.0}\",\"('Bi', 'Cu', 'O', 'P')\",OTHERS,False\nmp-11523,\"{'Ni': 3.0, 'Sn': 1.0}\",\"('Ni', 'Sn')\",OTHERS,False\nmp-631495,\"{'Ba': 1.0, 'Y': 1.0, 'Sc': 1.0}\",\"('Ba', 'Sc', 'Y')\",OTHERS,False\nmp-21620,\"{'Si': 20.0, 'Tc': 12.0, 'U': 8.0}\",\"('Si', 'Tc', 'U')\",OTHERS,False\nmp-1182246,\"{'Ba': 2.0, 'Ge': 6.0, 'O': 16.0}\",\"('Ba', 'Ge', 'O')\",OTHERS,False\nmp-752890,\"{'Li': 2.0, 'Cu': 4.0, 'C': 4.0, 'O': 14.0}\",\"('C', 'Cu', 'Li', 'O')\",OTHERS,False\nCd 6 Yb 1,\"{'Cd': 6.0, 'Yb': 1.0}\",\"('Cd', 'Yb')\",AC,False\nmp-23405,\"{'Br': 6.0, 'Te': 1.0, 'Cs': 2.0}\",\"('Br', 'Cs', 'Te')\",OTHERS,False\nmp-1198640,\"{'Mg': 1.0, 'Hg': 6.0, 'N': 6.0, 'O': 26.0}\",\"('Hg', 'Mg', 'N', 'O')\",OTHERS,False\nmp-1185830,\"{'Mg': 5.0, 'In': 1.0}\",\"('In', 'Mg')\",OTHERS,False\nmp-765020,\"{'Sr': 24.0, 'Fe': 16.0, 'O': 53.0}\",\"('Fe', 'O', 'Sr')\",OTHERS,False\nmp-752865,\"{'Li': 4.0, 'Mn': 5.0, 'Cu': 3.0, 'O': 16.0}\",\"('Cu', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-767518,\"{'Na': 4.0, 'Sc': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Na', 'O', 'P', 'Sc')\",OTHERS,False\nmp-774463,\"{'Li': 6.0, 'Cr': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-676663,\"{'Zn': 6.0, 'Sn': 6.0, 'Sb': 12.0}\",\"('Sb', 'Sn', 'Zn')\",OTHERS,False\nmp-555509,\"{'Ho': 6.0, 'Cu': 2.0, 'Ge': 2.0, 'S': 14.0}\",\"('Cu', 'Ge', 'Ho', 'S')\",OTHERS,False\nmp-1219565,\"{'Rb': 1.0, 'O': 2.0}\",\"('O', 'Rb')\",OTHERS,False\nmp-1218104,\"{'Sr': 1.0, 'Pr': 3.0, 'Fe': 4.0, 'O': 12.0}\",\"('Fe', 'O', 'Pr', 'Sr')\",OTHERS,False\nmp-1114631,\"{'Rb': 3.0, 'Sb': 1.0, 'Cl': 6.0}\",\"('Cl', 'Rb', 'Sb')\",OTHERS,False\nmp-765146,\"{'Li': 20.0, 'V': 4.0, 'C': 16.0, 'O': 48.0}\",\"('C', 'Li', 'O', 'V')\",OTHERS,False\nmp-768438,\"{'Li': 16.0, 'Ti': 4.0, 'Cr': 4.0, 'O': 24.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-557969,\"{'Li': 2.0, 'La': 4.0, 'S': 4.0, 'O': 16.0, 'F': 6.0}\",\"('F', 'La', 'Li', 'O', 'S')\",OTHERS,False\nmp-754659,\"{'Zr': 6.0, 'N': 4.0, 'O': 6.0}\",\"('N', 'O', 'Zr')\",OTHERS,False\nmp-677732,\"{'Nd': 2.0, 'Ti': 4.0, 'Cd': 2.0, 'O': 12.0, 'F': 2.0}\",\"('Cd', 'F', 'Nd', 'O', 'Ti')\",OTHERS,False\nmvc-5764,\"{'Ca': 8.0, 'Mn': 16.0, 'O': 32.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,False\nmp-1222544,\"{'Li': 4.0, 'Co': 1.0, 'Ru': 1.0, 'O': 6.0}\",\"('Co', 'Li', 'O', 'Ru')\",OTHERS,False\nmp-1029975,\"{'Al': 4.0, 'C': 6.0, 'N': 12.0}\",\"('Al', 'C', 'N')\",OTHERS,False\nmp-1199077,\"{'Ba': 4.0, 'B': 12.0, 'H': 8.0, 'O': 26.0}\",\"('B', 'Ba', 'H', 'O')\",OTHERS,False\nmp-770175,\"{'Li': 4.0, 'Mn': 6.0, 'Fe': 2.0, 'O': 16.0}\",\"('Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-865402,\"{'Tm': 3.0, 'Al': 3.0, 'Cu': 3.0}\",\"('Al', 'Cu', 'Tm')\",OTHERS,False\nmp-505802,\"{'Sn': 2.0, 'Mo': 8.0, 'O': 12.0}\",\"('Mo', 'O', 'Sn')\",OTHERS,False\nmp-1209222,\"{'Rb': 2.0, 'Lu': 2.0, 'Be': 2.0, 'F': 12.0}\",\"('Be', 'F', 'Lu', 'Rb')\",OTHERS,False\nmp-1186131,\"{'Na': 1.0, 'Dy': 3.0}\",\"('Dy', 'Na')\",OTHERS,False\nmp-24356,\"{'H': 16.0, 'N': 4.0, 'Cl': 12.0, 'Cd': 4.0}\",\"('Cd', 'Cl', 'H', 'N')\",OTHERS,False\nmp-1216388,\"{'Zr': 18.0, 'Co': 5.0, 'Sn': 4.0}\",\"('Co', 'Sn', 'Zr')\",OTHERS,False\nmp-561525,\"{'K': 6.0, 'Ga': 6.0, 'B': 6.0, 'O': 21.0}\",\"('B', 'Ga', 'K', 'O')\",OTHERS,False\nmp-555073,\"{'La': 12.0, 'As': 8.0, 'Cl': 4.0, 'O': 28.0}\",\"('As', 'Cl', 'La', 'O')\",OTHERS,False\nmp-554131,\"{'Sr': 4.0, 'Li': 4.0, 'Co': 4.0, 'F': 24.0}\",\"('Co', 'F', 'Li', 'Sr')\",OTHERS,False\nmp-762505,\"{'Ti': 3.0, 'Co': 3.0, 'Sb': 2.0, 'O': 16.0}\",\"('Co', 'O', 'Sb', 'Ti')\",OTHERS,False\nmp-1101,\"{'As': 1.0, 'Tm': 1.0}\",\"('As', 'Tm')\",OTHERS,False\nmp-27570,\"{'Cl': 16.0, 'Fe': 4.0, 'Cs': 4.0}\",\"('Cl', 'Cs', 'Fe')\",OTHERS,False\nmp-1187310,\"{'Tb': 1.0, 'Be': 1.0, 'O': 3.0}\",\"('Be', 'O', 'Tb')\",OTHERS,False\nmp-1212001,\"{'K': 12.0, 'Si': 24.0, 'H': 24.0, 'N': 44.0}\",\"('H', 'K', 'N', 'Si')\",OTHERS,False\nmp-1218980,\"{'Sm': 2.0, 'Ga': 2.0, 'Si': 2.0}\",\"('Ga', 'Si', 'Sm')\",OTHERS,False\nmp-13136,\"{'C': 1.0, 'W': 1.0}\",\"('C', 'W')\",OTHERS,False\nmvc-16045,\"{'Sr': 4.0, 'Ca': 1.0, 'Cr': 2.0, 'S': 2.0, 'O': 6.0}\",\"('Ca', 'Cr', 'O', 'S', 'Sr')\",OTHERS,False\nmp-582227,\"{'Eu': 1.0, 'Mn': 2.0, 'Sb': 2.0}\",\"('Eu', 'Mn', 'Sb')\",OTHERS,False\nAg 42.5 Ga 42.5 Yb 15,\"{'Ag': 42.5, 'Ga': 42.5, 'Yb': 15.0}\",\"('Ag', 'Ga', 'Yb')\",AC,False\nmp-1237680,\"{'Li': 4.0, 'Cr': 4.0, 'O': 18.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-757440,\"{'Cr': 3.0, 'S': 6.0, 'O': 24.0}\",\"('Cr', 'O', 'S')\",OTHERS,False\nmp-530787,\"{'O': 53.0, 'Y': 6.0, 'Zr': 22.0}\",\"('O', 'Y', 'Zr')\",OTHERS,False\nmp-21153,\"{'Er': 4.0, 'Ge': 4.0, 'Ir': 4.0}\",\"('Er', 'Ge', 'Ir')\",OTHERS,False\nmp-1101284,\"{'Ti': 6.0, 'Nb': 2.0, 'O': 16.0}\",\"('Nb', 'O', 'Ti')\",OTHERS,False\nmp-1203703,\"{'Tm': 4.0, 'N': 12.0, 'O': 36.0}\",\"('N', 'O', 'Tm')\",OTHERS,False\nmp-1193375,\"{'Yb': 2.0, 'Ni': 21.0, 'B': 6.0}\",\"('B', 'Ni', 'Yb')\",OTHERS,False\nmp-25992,\"{'Ni': 6.0, 'P': 8.0, 'O': 28.0}\",\"('Ni', 'O', 'P')\",OTHERS,False\nmp-1174245,\"{'Li': 7.0, 'Co': 5.0, 'O': 12.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nAl 68 Pd 20 Ru 12,\"{'Al': 68.0, 'Pd': 20.0, 'Ru': 12.0}\",\"('Al', 'Pd', 'Ru')\",AC,False\nmp-840,\"{'Rh': 4.0, 'Sm': 2.0}\",\"('Rh', 'Sm')\",OTHERS,False\nmp-766870,\"{'Mn': 5.0, 'O': 9.0, 'F': 1.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1178581,\"{'Ba': 16.0, 'Ti': 12.0, 'O': 40.0}\",\"('Ba', 'O', 'Ti')\",OTHERS,False\nmp-707839,\"{'Si': 2.0, 'H': 28.0, 'O': 8.0, 'F': 12.0}\",\"('F', 'H', 'O', 'Si')\",OTHERS,False\nmp-4689,\"{'Al': 28.0, 'Fe': 4.0, 'Cu': 8.0}\",\"('Al', 'Cu', 'Fe')\",OTHERS,False\nmvc-10589,\"{'Ba': 4.0, 'Mg': 4.0, 'Mo': 4.0, 'F': 28.0}\",\"('Ba', 'F', 'Mg', 'Mo')\",OTHERS,False\nmp-675372,\"{'Ca': 2.0, 'Zr': 8.0, 'O': 18.0}\",\"('Ca', 'O', 'Zr')\",OTHERS,False\nmp-755243,\"{'Li': 5.0, 'Cu': 1.0, 'S': 1.0, 'O': 2.0}\",\"('Cu', 'Li', 'O', 'S')\",OTHERS,False\nmp-1178259,\"{'Fe': 4.0, 'Co': 12.0, 'O': 32.0}\",\"('Co', 'Fe', 'O')\",OTHERS,False\nmp-1008823,\"{'Os': 1.0, 'N': 2.0}\",\"('N', 'Os')\",OTHERS,False\nmp-1189981,\"{'Zr': 10.0, 'Zn': 2.0, 'Sn': 6.0}\",\"('Sn', 'Zn', 'Zr')\",OTHERS,False\nmp-1227768,\"{'Ba': 1.0, 'Sr': 2.0, 'P': 2.0, 'O': 8.0}\",\"('Ba', 'O', 'P', 'Sr')\",OTHERS,False\nmp-653838,\"{'Zr': 4.0, 'Fe': 48.0, 'Si': 8.0, 'B': 4.0}\",\"('B', 'Fe', 'Si', 'Zr')\",OTHERS,False\nmp-1182142,\"{'Ba': 2.0, 'Al': 4.0, 'O': 12.0}\",\"('Al', 'Ba', 'O')\",OTHERS,False\nmp-32308,\"{'O': 12.0, 'Ni': 2.0, 'Ta': 4.0}\",\"('Ni', 'O', 'Ta')\",OTHERS,False\nmp-684911,\"{'Sm': 16.0, 'Te': 24.0}\",\"('Sm', 'Te')\",OTHERS,False\nmp-1219038,\"{'Sm': 1.0, 'U': 1.0, 'Te': 6.0}\",\"('Sm', 'Te', 'U')\",OTHERS,False\nmp-1183962,\"{'Eu': 2.0, 'Cd': 1.0, 'Pb': 1.0}\",\"('Cd', 'Eu', 'Pb')\",OTHERS,False\nmp-1097234,\"{'V': 1.0, 'Cr': 1.0, 'W': 2.0}\",\"('Cr', 'V', 'W')\",OTHERS,False\nmp-1183799,\"{'Dy': 1.0, 'Ho': 1.0, 'Zn': 2.0}\",\"('Dy', 'Ho', 'Zn')\",OTHERS,False\nmp-760939,\"{'Cu': 6.0, 'O': 1.0, 'F': 11.0}\",\"('Cu', 'F', 'O')\",OTHERS,False\nmp-1232092,\"{'Sm': 8.0, 'Mg': 4.0, 'S': 16.0}\",\"('Mg', 'S', 'Sm')\",OTHERS,False\nmvc-5962,\"{'Ca': 2.0, 'Ta': 1.0, 'W': 1.0, 'O': 6.0}\",\"('Ca', 'O', 'Ta', 'W')\",OTHERS,False\nmp-13323,\"{'O': 6.0, 'Nb': 1.0, 'Ba': 2.0, 'Eu': 1.0}\",\"('Ba', 'Eu', 'Nb', 'O')\",OTHERS,False\nmp-540879,\"{'Eu': 4.0, 'B': 8.0, 'O': 16.0}\",\"('B', 'Eu', 'O')\",OTHERS,False\nmp-10208,\"{'P': 4.0, 'Ni': 2.0, 'Mo': 2.0}\",\"('Mo', 'Ni', 'P')\",OTHERS,False\nmp-1193690,\"{'Ge': 7.0, 'H': 1.0, 'O': 20.0}\",\"('Ge', 'H', 'O')\",OTHERS,False\nmp-1201385,\"{'Ba': 6.0, 'Fe': 52.0, 'O': 82.0}\",\"('Ba', 'Fe', 'O')\",OTHERS,False\nmp-1105702,\"{'Zr': 8.0, 'Nb': 2.0, 'Ga': 6.0}\",\"('Ga', 'Nb', 'Zr')\",OTHERS,False\nmp-1097724,\"{'Na': 4.0, 'W': 4.0, 'O': 10.0}\",\"('Na', 'O', 'W')\",OTHERS,False\nmp-766541,\"{'P': 10.0, 'W': 8.0, 'O': 48.0}\",\"('O', 'P', 'W')\",OTHERS,False\nmp-1245342,\"{'Li': 2.0, 'Lu': 2.0, 'S': 4.0, 'O': 16.0}\",\"('Li', 'Lu', 'O', 'S')\",OTHERS,False\nmp-560656,\"{'Ca': 20.0, 'Te': 20.0, 'O': 60.0}\",\"('Ca', 'O', 'Te')\",OTHERS,False\nmp-721094,\"{'Na': 5.0, 'Ca': 2.0, 'Ce': 3.0, 'Ti': 8.0, 'Nb': 2.0, 'O': 30.0}\",\"('Ca', 'Ce', 'Na', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-534778,\"{'Ca': 4.0, 'Na': 2.0, 'O': 36.0, 'Sc': 2.0, 'Si': 12.0, 'Zn': 4.0}\",\"('Ca', 'Na', 'O', 'Sc', 'Si', 'Zn')\",OTHERS,False\nmp-542654,\"{'In': 9.0, 'S': 15.0, 'Rb': 3.0}\",\"('In', 'Rb', 'S')\",OTHERS,False\nmp-2977,\"{'Cu': 1.0, 'Ag': 1.0, 'Te': 2.0}\",\"('Ag', 'Cu', 'Te')\",OTHERS,False\nmp-1218356,\"{'Sr': 1.0, 'Al': 1.0, 'Ga': 1.0}\",\"('Al', 'Ga', 'Sr')\",OTHERS,False\nmp-4586,\"{'Li': 2.0, 'Al': 2.0, 'Te': 4.0}\",\"('Al', 'Li', 'Te')\",OTHERS,False\nmp-27376,\"{'O': 23.0, 'Si': 10.0, 'Rb': 6.0}\",\"('O', 'Rb', 'Si')\",OTHERS,False\nmp-706622,\"{'P': 4.0, 'H': 24.0, 'N': 8.0, 'O': 8.0}\",\"('H', 'N', 'O', 'P')\",OTHERS,False\nmp-1171010,\"{'Ca': 1.0, 'Fe': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Ca', 'Fe', 'O', 'Si')\",OTHERS,False\nmp-1176721,\"{'Li': 1.0, 'Fe': 5.0, 'O': 5.0, 'F': 1.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1186598,\"{'Pm': 1.0, 'Ho': 1.0, 'Ir': 2.0}\",\"('Ho', 'Ir', 'Pm')\",OTHERS,False\nmp-1207138,\"{'Sm': 1.0, 'Eu': 2.0, 'Ta': 1.0, 'O': 6.0}\",\"('Eu', 'O', 'Sm', 'Ta')\",OTHERS,False\nmp-605406,\"{'Rb': 2.0, 'U': 4.0, 'H': 10.0, 'C': 8.0, 'O': 30.0}\",\"('C', 'H', 'O', 'Rb', 'U')\",OTHERS,False\nmp-1229046,\"{'Al': 1.0, 'In': 1.0, 'Cu': 2.0, 'Se': 4.0}\",\"('Al', 'Cu', 'In', 'Se')\",OTHERS,False\nmp-1077939,\"{'Cr': 1.0, 'Te': 4.0, 'Rh': 2.0}\",\"('Cr', 'Rh', 'Te')\",OTHERS,False\nmp-1220441,\"{'Nb': 4.0, 'Rh': 1.0}\",\"('Nb', 'Rh')\",OTHERS,False\nmp-1080124,\"{'Cd': 2.0, 'Cl': 8.0}\",\"('Cd', 'Cl')\",OTHERS,False\nmp-27887,\"{'Si': 8.0, 'P': 12.0, 'Ba': 6.0}\",\"('Ba', 'P', 'Si')\",OTHERS,False\nmp-1199218,\"{'Li': 12.0, 'As': 28.0, 'H': 156.0, 'N': 52.0}\",\"('As', 'H', 'Li', 'N')\",OTHERS,False\nmp-1187266,\"{'Tb': 3.0, 'Au': 1.0}\",\"('Au', 'Tb')\",OTHERS,False\nmp-625282,\"{'Fe': 4.0, 'H': 4.0, 'O': 8.0}\",\"('Fe', 'H', 'O')\",OTHERS,False\nmp-1114539,\"{'K': 1.0, 'Rb': 2.0, 'In': 1.0, 'Br': 6.0}\",\"('Br', 'In', 'K', 'Rb')\",OTHERS,False\nmp-746820,\"{'Ni': 1.0, 'H': 6.0, 'S': 2.0, 'O': 12.0}\",\"('H', 'Ni', 'O', 'S')\",OTHERS,False\nmp-958,\"{'Cr': 6.0, 'Rh': 2.0}\",\"('Cr', 'Rh')\",OTHERS,False\nmp-753885,\"{'Li': 4.0, 'Cr': 2.0, 'Co': 3.0, 'Sb': 3.0, 'O': 16.0}\",\"('Co', 'Cr', 'Li', 'O', 'Sb')\",OTHERS,False\nmp-1183424,\"{'Be': 3.0, 'Ge': 1.0}\",\"('Be', 'Ge')\",OTHERS,False\nmp-1222801,\"{'La': 1.0, 'Nd': 1.0, 'Cu': 1.0, 'O': 4.0}\",\"('Cu', 'La', 'Nd', 'O')\",OTHERS,False\nmp-1194348,\"{'Eu': 12.0, 'Ga': 4.0, 'P': 12.0}\",\"('Eu', 'Ga', 'P')\",OTHERS,False\nmp-772241,\"{'Li': 6.0, 'Mn': 2.0, 'Al': 4.0, 'O': 12.0}\",\"('Al', 'Li', 'Mn', 'O')\",OTHERS,False\nmvc-14316,\"{'Ca': 2.0, 'Fe': 2.0, 'F': 10.0}\",\"('Ca', 'F', 'Fe')\",OTHERS,False\nmp-3808,\"{'O': 4.0, 'K': 2.0, 'U': 1.0}\",\"('K', 'O', 'U')\",OTHERS,False\nmp-1190793,\"{'P': 4.0, 'N': 4.0, 'O': 16.0}\",\"('N', 'O', 'P')\",OTHERS,False\nmp-1214797,\"{'Ba': 4.0, 'Er': 2.0, 'Re': 2.0, 'O': 12.0}\",\"('Ba', 'Er', 'O', 'Re')\",OTHERS,False\nmp-1197539,\"{'K': 12.0, 'As': 4.0, 'Se': 16.0}\",\"('As', 'K', 'Se')\",OTHERS,False\nmp-1227902,\"{'Ca': 12.0, 'Al': 4.0, 'Fe': 4.0, 'Si': 12.0, 'O': 48.0}\",\"('Al', 'Ca', 'Fe', 'O', 'Si')\",OTHERS,False\nmp-540439,\"{'Mn': 2.0, 'P': 6.0, 'O': 18.0}\",\"('Mn', 'O', 'P')\",OTHERS,False\nmp-510240,\"{'Rb': 4.0, 'Ag': 8.0, 'S': 6.0}\",\"('Ag', 'Rb', 'S')\",OTHERS,False\nmvc-10945,\"{'Ca': 4.0, 'V': 2.0, 'N': 6.0}\",\"('Ca', 'N', 'V')\",OTHERS,False\nmvc-4438,\"{'Mg': 12.0, 'Co': 8.0, 'Ge': 12.0, 'O': 48.0}\",\"('Co', 'Ge', 'Mg', 'O')\",OTHERS,False\nmp-767412,\"{'Li': 3.0, 'Co': 4.0, 'S': 8.0}\",\"('Co', 'Li', 'S')\",OTHERS,False\nmp-1210026,\"{'Nd': 10.0, 'Ge': 6.0, 'O': 26.0}\",\"('Ge', 'Nd', 'O')\",OTHERS,False\nmp-865184,\"{'Li': 1.0, 'Sc': 1.0, 'Pd': 2.0}\",\"('Li', 'Pd', 'Sc')\",OTHERS,False\nmp-769030,\"{'Bi': 20.0, 'B': 4.0, 'O': 40.0}\",\"('B', 'Bi', 'O')\",OTHERS,False\nmp-608469,\"{'Co': 8.0, 'C': 32.0, 'O': 32.0}\",\"('C', 'Co', 'O')\",OTHERS,False\nmp-1212594,\"{'In': 12.0, 'Te': 12.0, 'Br': 4.0}\",\"('Br', 'In', 'Te')\",OTHERS,False\nmp-1184962,\"{'K': 1.0, 'Cd': 3.0}\",\"('Cd', 'K')\",OTHERS,False\nmp-1200758,\"{'Ba': 12.0, 'V': 8.0, 'Se': 16.0, 'O': 64.0}\",\"('Ba', 'O', 'Se', 'V')\",OTHERS,False\nmp-560043,\"{'K': 1.0, 'Sb': 4.0, 'F': 13.0}\",\"('F', 'K', 'Sb')\",OTHERS,False\nmp-645189,\"{'Cs': 2.0, 'K': 2.0, 'Pt': 12.0, 'S': 12.0, 'O': 56.0}\",\"('Cs', 'K', 'O', 'Pt', 'S')\",OTHERS,False\nmp-1184478,{'In': 1.0},\"('In',)\",OTHERS,False\nmp-1039462,\"{'Ca': 4.0, 'Mg': 2.0}\",\"('Ca', 'Mg')\",OTHERS,False\nmp-1222929,\"{'La': 1.0, 'Al': 1.0, 'Ni': 4.0}\",\"('Al', 'La', 'Ni')\",OTHERS,False\nmvc-5816,\"{'Co': 8.0, 'O': 16.0}\",\"('Co', 'O')\",OTHERS,False\nmp-1226531,\"{'Ce': 1.0, 'Si': 1.0, 'B': 1.0, 'Ir': 3.0}\",\"('B', 'Ce', 'Ir', 'Si')\",OTHERS,False\nmp-1096308,\"{'Al': 1.0, 'Fe': 1.0, 'Ru': 2.0}\",\"('Al', 'Fe', 'Ru')\",OTHERS,False\nmp-1185441,\"{'Li': 1.0, 'Sm': 2.0, 'Ga': 1.0}\",\"('Ga', 'Li', 'Sm')\",OTHERS,False\nmp-1208525,\"{'Sr': 2.0, 'Y': 1.0, 'Cu': 2.0, 'Pb': 1.0, 'O': 7.0}\",\"('Cu', 'O', 'Pb', 'Sr', 'Y')\",OTHERS,False\nmvc-16754,\"{'Y': 2.0, 'Ti': 4.0, 'O': 8.0}\",\"('O', 'Ti', 'Y')\",OTHERS,False\nmp-1218581,\"{'Sr': 1.0, 'Ca': 3.0, 'V': 4.0, 'O': 12.0}\",\"('Ca', 'O', 'Sr', 'V')\",OTHERS,False\nmp-34355,\"{'As': 13.0, 'Li': 31.0, 'Zr': 2.0}\",\"('As', 'Li', 'Zr')\",OTHERS,False\nmp-867673,\"{'Na': 3.0, 'Pt': 12.0, 'O': 16.0}\",\"('Na', 'O', 'Pt')\",OTHERS,False\nmp-1187640,\"{'Tm': 5.0, 'Mg': 1.0}\",\"('Mg', 'Tm')\",OTHERS,False\nmp-1246700,\"{'Ca': 4.0, 'Ni': 4.0, 'S': 2.0, 'F': 12.0}\",\"('Ca', 'F', 'Ni', 'S')\",OTHERS,False\nmp-985477,\"{'Al': 8.0, 'Tl': 8.0, 'S': 16.0}\",\"('Al', 'S', 'Tl')\",OTHERS,False\nmp-1111618,\"{'K': 2.0, 'Na': 1.0, 'Sc': 1.0, 'I': 6.0}\",\"('I', 'K', 'Na', 'Sc')\",OTHERS,False\nmp-1147536,\"{'Ca': 2.0, 'Cu': 1.0, 'S': 2.0, 'O': 2.0}\",\"('Ca', 'Cu', 'O', 'S')\",OTHERS,False\nmp-1535,\"{'Si': 2.0, 'Tb': 1.0}\",\"('Si', 'Tb')\",OTHERS,False\nmp-13863,\"{'O': 12.0, 'Ge': 4.0, 'Ba': 4.0}\",\"('Ba', 'Ge', 'O')\",OTHERS,False\nmp-1187683,\"{'U': 3.0, 'Hg': 1.0}\",\"('Hg', 'U')\",OTHERS,False\nmp-1221701,\"{'Mn': 1.0, 'V': 1.0, 'S': 2.0}\",\"('Mn', 'S', 'V')\",OTHERS,False\nmp-1100530,\"{'Li': 9.0, 'Mn': 7.0, 'O': 16.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-30828,\"{'Sr': 8.0, 'Pb': 4.0}\",\"('Pb', 'Sr')\",OTHERS,False\nmp-861974,\"{'Pa': 1.0, 'Cd': 1.0, 'Pt': 2.0}\",\"('Cd', 'Pa', 'Pt')\",OTHERS,False\nmp-1239191,\"{'Cs': 4.0, 'Cr': 8.0, 'S': 16.0}\",\"('Cr', 'Cs', 'S')\",OTHERS,False\nmp-1199915,\"{'Lu': 8.0, 'B': 24.0, 'Os': 4.0}\",\"('B', 'Lu', 'Os')\",OTHERS,False\nmp-898,\"{'Al': 15.0, 'Ho': 5.0}\",\"('Al', 'Ho')\",OTHERS,False\nmp-685503,\"{'K': 4.0, 'Zr': 48.0, 'I': 112.0}\",\"('I', 'K', 'Zr')\",OTHERS,False\nmp-11489,\"{'Li': 3.0, 'Pd': 1.0}\",\"('Li', 'Pd')\",OTHERS,False\nmp-1175220,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-545436,\"{'O': 6.0, 'Bi': 1.0, 'Ba': 2.0, 'Yb': 1.0}\",\"('Ba', 'Bi', 'O', 'Yb')\",OTHERS,False\nmp-22394,\"{'C': 1.0, 'Ru': 3.0, 'Th': 1.0}\",\"('C', 'Ru', 'Th')\",OTHERS,False\nmp-675748,\"{'Zn': 2.0, 'Ge': 1.0, 'S': 4.0}\",\"('Ge', 'S', 'Zn')\",OTHERS,False\nmp-1211431,\"{'La': 4.0, 'Cu': 20.0, 'Sn': 4.0}\",\"('Cu', 'La', 'Sn')\",OTHERS,False\nmp-581345,\"{'Nd': 24.0, 'Ge': 24.0, 'O': 84.0}\",\"('Ge', 'Nd', 'O')\",OTHERS,False\nmp-1187948,\"{'Zn': 6.0, 'Ni': 2.0}\",\"('Ni', 'Zn')\",OTHERS,False\nmvc-12644,\"{'Ca': 2.0, 'Ni': 4.0, 'O': 8.0}\",\"('Ca', 'Ni', 'O')\",OTHERS,False\nmp-4449,\"{'O': 16.0, 'Se': 4.0, 'Tl': 8.0}\",\"('O', 'Se', 'Tl')\",OTHERS,False\nmp-1183967,\"{'Ga': 1.0, 'Ag': 3.0}\",\"('Ag', 'Ga')\",OTHERS,False\nmp-1228179,\"{'Ba': 4.0, 'Pr': 1.0, 'Dy': 1.0, 'Cu': 6.0, 'O': 14.0}\",\"('Ba', 'Cu', 'Dy', 'O', 'Pr')\",OTHERS,False\nmp-1221933,\"{'Mn': 3.0, 'Zn': 9.0, 'P': 8.0, 'O': 32.0}\",\"('Mn', 'O', 'P', 'Zn')\",OTHERS,False\nmp-709031,\"{'Al': 8.0, 'P': 8.0, 'H': 22.0, 'C': 6.0, 'N': 2.0, 'O': 36.0}\",\"('Al', 'C', 'H', 'N', 'O', 'P')\",OTHERS,False\nmp-26618,\"{'Li': 4.0, 'O': 16.0, 'P': 4.0, 'Cr': 2.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1178754,\"{'W': 4.0, 'O': 14.0}\",\"('O', 'W')\",OTHERS,False\nmp-23179,\"{'Ni': 4.0, 'Bi': 12.0}\",\"('Bi', 'Ni')\",OTHERS,False\nmp-1187262,\"{'Sr': 3.0, 'U': 1.0}\",\"('Sr', 'U')\",OTHERS,False\nmp-11407,\"{'Ga': 1.0, 'Pt': 3.0}\",\"('Ga', 'Pt')\",OTHERS,False\nmp-1210237,\"{'Na': 1.0, 'Eu': 1.0, 'Cu': 2.0, 'F': 8.0}\",\"('Cu', 'Eu', 'F', 'Na')\",OTHERS,False\nmp-554002,\"{'Al': 4.0, 'H': 12.0, 'O': 12.0}\",\"('Al', 'H', 'O')\",OTHERS,False\nmp-1207916,\"{'Tm': 12.0, 'Sc': 8.0, 'Al': 12.0, 'O': 48.0}\",\"('Al', 'O', 'Sc', 'Tm')\",OTHERS,False\nmp-1216500,\"{'Zr': 2.0, 'Mn': 12.0, 'Ga': 1.0, 'Sn': 11.0}\",\"('Ga', 'Mn', 'Sn', 'Zr')\",OTHERS,False\nmp-1217476,\"{'Tb': 1.0, 'Si': 2.0, 'Ir': 1.0, 'Rh': 1.0}\",\"('Ir', 'Rh', 'Si', 'Tb')\",OTHERS,False\nmp-755045,\"{'Li': 1.0, 'Ni': 2.0, 'O': 4.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmp-1195190,\"{'Ba': 16.0, 'Fe': 12.0, 'Se': 24.0, 'F': 16.0}\",\"('Ba', 'F', 'Fe', 'Se')\",OTHERS,False\nmp-10714,\"{'C': 1.0, 'Rh': 3.0, 'Tm': 1.0}\",\"('C', 'Rh', 'Tm')\",OTHERS,False\nmp-1104672,\"{'Rb': 1.0, 'Hg': 3.0, 'N': 1.0, 'Cl': 8.0, 'O': 2.0}\",\"('Cl', 'Hg', 'N', 'O', 'Rb')\",OTHERS,False\nmp-1077241,\"{'Y': 2.0, 'Cu': 4.0}\",\"('Cu', 'Y')\",OTHERS,False\nmp-1200258,\"{'Hg': 4.0, 'S': 8.0, 'O': 28.0}\",\"('Hg', 'O', 'S')\",OTHERS,False\nmp-1080723,\"{'Hf': 2.0, 'Cu': 2.0, 'Ge': 2.0, 'As': 2.0}\",\"('As', 'Cu', 'Ge', 'Hf')\",OTHERS,False\nmp-1112618,\"{'Cs': 2.0, 'Sm': 1.0, 'Cu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Cu', 'Sm')\",OTHERS,False\nmp-1208097,\"{'V': 8.0, 'S': 12.0, 'N': 8.0, 'O': 48.0}\",\"('N', 'O', 'S', 'V')\",OTHERS,False\nmp-4041,\"{'Al': 2.0, 'Ge': 2.0, 'Yb': 1.0}\",\"('Al', 'Ge', 'Yb')\",OTHERS,False\nmp-754467,\"{'Li': 1.0, 'V': 2.0, 'O': 3.0, 'F': 3.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-6603,\"{'O': 12.0, 'Sr': 4.0, 'Ce': 2.0, 'Ir': 2.0}\",\"('Ce', 'Ir', 'O', 'Sr')\",OTHERS,False\nmp-559961,\"{'Tl': 8.0, 'Se': 4.0, 'O': 16.0}\",\"('O', 'Se', 'Tl')\",OTHERS,False\nmp-1196648,\"{'Nd': 12.0, 'Zn': 2.0, 'Fe': 26.0}\",\"('Fe', 'Nd', 'Zn')\",OTHERS,False\nmp-1209139,\"{'Sb': 4.0, 'Te': 7.0, 'Pb': 1.0}\",\"('Pb', 'Sb', 'Te')\",OTHERS,False\nmp-1178445,\"{'Cr': 8.0, 'P': 16.0, 'O': 48.0}\",\"('Cr', 'O', 'P')\",OTHERS,False\nmp-1208558,\"{'Te': 2.0, 'Br': 12.0, 'O': 16.0}\",\"('Br', 'O', 'Te')\",OTHERS,False\nmp-998592,\"{'Rb': 4.0, 'Ca': 4.0, 'I': 12.0}\",\"('Ca', 'I', 'Rb')\",OTHERS,False\nmp-606691,\"{'K': 4.0, 'U': 8.0, 'P': 12.0, 'O': 56.0}\",\"('K', 'O', 'P', 'U')\",OTHERS,False\nmp-768598,\"{'Na': 4.0, 'Ni': 2.0, 'C': 2.0, 'S': 2.0, 'O': 14.0}\",\"('C', 'Na', 'Ni', 'O', 'S')\",OTHERS,False\nmp-10108,\"{'P': 1.0, 'Np': 1.0}\",\"('Np', 'P')\",OTHERS,False\nmp-1191394,\"{'Li': 8.0, 'Nd': 7.0, 'Ge': 10.0}\",\"('Ge', 'Li', 'Nd')\",OTHERS,False\nmp-27805,\"{'Si': 4.0, 'S': 20.0, 'Ba': 12.0}\",\"('Ba', 'S', 'Si')\",OTHERS,False\nmp-4187,\"{'N': 4.0, 'O': 2.0, 'Ge': 4.0}\",\"('Ge', 'N', 'O')\",OTHERS,False\nmp-1069477,\"{'Gd': 1.0, 'Si': 3.0, 'Ir': 1.0}\",\"('Gd', 'Ir', 'Si')\",OTHERS,False\nmp-754751,\"{'Li': 3.0, 'Nb': 3.0, 'Te': 1.0, 'O': 12.0}\",\"('Li', 'Nb', 'O', 'Te')\",OTHERS,False\nmp-510006,\"{'Pu': 4.0, 'P': 8.0, 'K': 12.0, 'S': 32.0}\",\"('K', 'P', 'Pu', 'S')\",OTHERS,False\nmp-756583,\"{'Li': 4.0, 'V': 5.0, 'Cu': 1.0, 'Cl': 1.0, 'O': 15.0}\",\"('Cl', 'Cu', 'Li', 'O', 'V')\",OTHERS,False\nmp-22569,\"{'O': 16.0, 'P': 4.0, 'In': 4.0}\",\"('In', 'O', 'P')\",OTHERS,False\nmp-1180367,\"{'Nd': 4.0, 'C': 12.0, 'O': 40.0}\",\"('C', 'Nd', 'O')\",OTHERS,False\nmp-973114,\"{'Ho': 1.0, 'Lu': 1.0, 'Ru': 2.0}\",\"('Ho', 'Lu', 'Ru')\",OTHERS,False\nmp-504532,\"{'O': 44.0, 'As': 8.0, 'W': 8.0}\",\"('As', 'O', 'W')\",OTHERS,False\nmp-1214361,\"{'Ca': 4.0, 'Mn': 6.0, 'Si': 6.0, 'H': 6.0, 'O': 28.0}\",\"('Ca', 'H', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1185110,\"{'K': 3.0, 'Rh': 1.0}\",\"('K', 'Rh')\",OTHERS,False\nmp-768883,\"{'Sn': 4.0, 'S': 6.0, 'O': 24.0}\",\"('O', 'S', 'Sn')\",OTHERS,False\nmp-1223761,\"{'La': 2.0, 'Ga': 7.0, 'Au': 1.0}\",\"('Au', 'Ga', 'La')\",OTHERS,False\nmp-1189317,\"{'Mg': 4.0, 'Cr': 2.0, 'B': 4.0, 'Ir': 10.0}\",\"('B', 'Cr', 'Ir', 'Mg')\",OTHERS,False\nmp-865202,\"{'Tm': 1.0, 'Cd': 1.0, 'Pt': 2.0}\",\"('Cd', 'Pt', 'Tm')\",OTHERS,False\nmp-2497,\"{'Zn': 1.0, 'Gd': 1.0}\",\"('Gd', 'Zn')\",OTHERS,False\nmp-29970,\"{'O': 56.0, 'Sb': 20.0, 'Cs': 12.0}\",\"('Cs', 'O', 'Sb')\",OTHERS,False\nmp-1214469,\"{'Ca': 3.0, 'Cd': 3.0, 'N': 12.0, 'O': 36.0}\",\"('Ca', 'Cd', 'N', 'O')\",OTHERS,False\nmp-1206320,\"{'Rb': 2.0, 'Sc': 2.0, 'Cl': 6.0}\",\"('Cl', 'Rb', 'Sc')\",OTHERS,False\nmp-27714,\"{'H': 12.0, 'O': 4.0, 'F': 4.0}\",\"('F', 'H', 'O')\",OTHERS,False\nmp-644443,\"{'Ca': 2.0, 'P': 2.0, 'H': 4.0, 'O': 12.0}\",\"('Ca', 'H', 'O', 'P')\",OTHERS,False\nmp-1034881,\"{'Cs': 1.0, 'Na': 1.0, 'Mg': 14.0, 'O': 15.0}\",\"('Cs', 'Mg', 'Na', 'O')\",OTHERS,False\nmp-757241,\"{'V': 10.0, 'W': 6.0, 'O': 40.0}\",\"('O', 'V', 'W')\",OTHERS,False\nmp-1245853,\"{'Ba': 6.0, 'Y': 2.0, 'N': 6.0}\",\"('Ba', 'N', 'Y')\",OTHERS,False\nmp-1103677,\"{'Tb': 3.0, 'Ga': 9.0, 'Pt': 2.0}\",\"('Ga', 'Pt', 'Tb')\",OTHERS,False\nmp-1246559,\"{'Dy': 2.0, 'Mg': 2.0, 'Cr': 2.0, 'S': 8.0}\",\"('Cr', 'Dy', 'Mg', 'S')\",OTHERS,False\nmp-865483,\"{'Li': 2.0, 'Gd': 1.0, 'In': 1.0}\",\"('Gd', 'In', 'Li')\",OTHERS,False\nmp-1183768,\"{'Ce': 1.0, 'Nd': 1.0, 'Hg': 2.0}\",\"('Ce', 'Hg', 'Nd')\",OTHERS,False\nmp-779893,\"{'Dy': 4.0, 'P': 20.0, 'O': 56.0}\",\"('Dy', 'O', 'P')\",OTHERS,False\nmp-1099956,\"{'K': 4.0, 'Na': 28.0, 'V': 24.0, 'Mo': 8.0, 'O': 80.0}\",\"('K', 'Mo', 'Na', 'O', 'V')\",OTHERS,False\nmp-756525,\"{'Mn': 3.0, 'Cu': 1.0, 'O': 8.0}\",\"('Cu', 'Mn', 'O')\",OTHERS,False\nmp-1096407,\"{'Al': 1.0, 'Ni': 1.0, 'Pt': 2.0}\",\"('Al', 'Ni', 'Pt')\",OTHERS,False\nmp-680331,\"{'Cd': 4.0, 'Hg': 12.0, 'C': 24.0, 'S': 24.0, 'N': 24.0, 'Cl': 8.0}\",\"('C', 'Cd', 'Cl', 'Hg', 'N', 'S')\",OTHERS,False\nmp-557634,\"{'Na': 2.0, 'V': 6.0, 'P': 6.0, 'O': 24.0}\",\"('Na', 'O', 'P', 'V')\",OTHERS,False\nmvc-545,\"{'Ba': 1.0, 'Ca': 1.0, 'Ag': 4.0, 'O': 8.0}\",\"('Ag', 'Ba', 'Ca', 'O')\",OTHERS,False\nmp-1173947,\"{'Li': 6.0, 'Mn': 4.0, 'O': 10.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1245883,\"{'Sc': 16.0, 'Te': 12.0, 'N': 8.0}\",\"('N', 'Sc', 'Te')\",OTHERS,False\nmp-1185192,\"{'Li': 3.0, 'La': 1.0}\",\"('La', 'Li')\",OTHERS,False\nmp-1215156,\"{'Al': 18.0, 'P': 18.0, 'H': 42.0, 'O': 72.0}\",\"('Al', 'H', 'O', 'P')\",OTHERS,False\nmp-774293,\"{'Li': 8.0, 'Ti': 8.0, 'Mn': 8.0, 'Co': 2.0, 'O': 36.0}\",\"('Co', 'Li', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-561261,\"{'Ce': 8.0, 'P': 8.0, 'S': 32.0}\",\"('Ce', 'P', 'S')\",OTHERS,False\nmp-623261,\"{'Pr': 4.0, 'Ga': 4.0, 'Co': 4.0}\",\"('Co', 'Ga', 'Pr')\",OTHERS,False\nmp-777233,\"{'Ba': 4.0, 'Y': 4.0, 'F': 20.0}\",\"('Ba', 'F', 'Y')\",OTHERS,False\nmp-755337,\"{'Li': 4.0, 'Nb': 1.0, 'Fe': 3.0, 'O': 8.0}\",\"('Fe', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-974606,\"{'Re': 2.0, 'H': 12.0, 'C': 2.0, 'N': 6.0, 'O': 8.0}\",\"('C', 'H', 'N', 'O', 'Re')\",OTHERS,False\nmp-19764,\"{'In': 1.0, 'Pr': 3.0}\",\"('In', 'Pr')\",OTHERS,False\nmp-1112421,\"{'K': 2.0, 'Pr': 1.0, 'Au': 1.0, 'Cl': 6.0}\",\"('Au', 'Cl', 'K', 'Pr')\",OTHERS,False\nmp-758453,\"{'Na': 8.0, 'P': 8.0, 'H': 16.0, 'N': 8.0, 'O': 20.0}\",\"('H', 'N', 'Na', 'O', 'P')\",OTHERS,False\nmp-1215853,\"{'Yb': 1.0, 'Tm': 2.0, 'Se': 4.0}\",\"('Se', 'Tm', 'Yb')\",OTHERS,False\nmp-1176482,\"{'Mn': 3.0, 'Cr': 2.0, 'Fe': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Fe', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1245073,\"{'Cr': 8.0, 'Fe': 24.0, 'O': 48.0}\",\"('Cr', 'Fe', 'O')\",OTHERS,False\nmp-1245737,\"{'Na': 2.0, 'Cr': 2.0, 'N': 2.0}\",\"('Cr', 'N', 'Na')\",OTHERS,False\nmp-849745,\"{'Li': 12.0, 'Mn': 8.0, 'P': 16.0, 'O': 56.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-672187,\"{'Pr': 4.0, 'Pd': 4.0, 'Pb': 2.0}\",\"('Pb', 'Pd', 'Pr')\",OTHERS,False\nmp-1185197,\"{'Li': 6.0, 'Ho': 2.0}\",\"('Ho', 'Li')\",OTHERS,False\nmp-1014005,\"{'Mn': 2.0, 'Si': 1.0, 'Rh': 1.0}\",\"('Mn', 'Rh', 'Si')\",OTHERS,False\nmp-4989,\"{'Cr': 3.0, 'Ni': 3.0, 'As': 3.0}\",\"('As', 'Cr', 'Ni')\",OTHERS,False\nmp-1078429,\"{'Eu': 2.0, 'Ga': 6.0, 'Pd': 2.0}\",\"('Eu', 'Ga', 'Pd')\",OTHERS,False\nmp-766132,\"{'Li': 8.0, 'Zr': 4.0, 'Fe': 4.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'P', 'Zr')\",OTHERS,False\nmp-21660,\"{'Co': 10.0, 'Ga': 20.0, 'Hf': 10.0}\",\"('Co', 'Ga', 'Hf')\",OTHERS,False\nmp-1078398,\"{'Ce': 2.0, 'As': 2.0, 'O': 6.0}\",\"('As', 'Ce', 'O')\",OTHERS,False\nmp-20961,\"{'S': 8.0, 'Pd': 6.0, 'Eu': 2.0}\",\"('Eu', 'Pd', 'S')\",OTHERS,False\nmp-1033751,\"{'Mg': 14.0, 'Bi': 1.0, 'C': 1.0, 'O': 16.0}\",\"('Bi', 'C', 'Mg', 'O')\",OTHERS,False\nmp-1658,\"{'O': 24.0, 'Tl': 16.0}\",\"('O', 'Tl')\",OTHERS,False\nmp-767562,\"{'Na': 4.0, 'Lu': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Lu', 'Na', 'O', 'P')\",OTHERS,False\nmp-30626,\"{'Zn': 12.0, 'Dy': 4.0}\",\"('Dy', 'Zn')\",OTHERS,False\nmp-1209407,\"{'Pr': 4.0, 'Re': 6.0, 'O': 19.0}\",\"('O', 'Pr', 'Re')\",OTHERS,False\nmp-1188269,\"{'Pb': 4.0, 'S': 8.0, 'N': 8.0}\",\"('N', 'Pb', 'S')\",OTHERS,False\nmp-7979,\"{'F': 6.0, 'K': 2.0, 'Pd': 1.0}\",\"('F', 'K', 'Pd')\",OTHERS,False\nmp-849092,\"{'Ni': 2.0, 'S': 4.0}\",\"('Ni', 'S')\",OTHERS,False\nmp-554852,\"{'Y': 4.0, 'Te': 10.0, 'O': 26.0}\",\"('O', 'Te', 'Y')\",OTHERS,False\nmp-1223138,\"{'La': 4.0, 'Ti': 2.0, 'Mn': 2.0, 'O': 12.0}\",\"('La', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-1245321,\"{'Ti': 30.0, 'O': 60.0}\",\"('O', 'Ti')\",OTHERS,False\nmp-697789,\"{'Li': 2.0, 'Cr': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1190173,\"{'Cu': 2.0, 'Pb': 6.0, 'Cl': 4.0, 'O': 8.0}\",\"('Cl', 'Cu', 'O', 'Pb')\",OTHERS,False\nmp-1173113,\"{'Tb': 10.0, 'Yb': 1.0, 'Se': 16.0}\",\"('Se', 'Tb', 'Yb')\",OTHERS,False\nmp-643004,\"{'Sr': 1.0, 'Mg': 2.0, 'Fe': 1.0, 'H': 8.0}\",\"('Fe', 'H', 'Mg', 'Sr')\",OTHERS,False\nmp-1223901,\"{'In': 1.0, 'Bi': 3.0}\",\"('Bi', 'In')\",OTHERS,False\nmp-1214016,\"{'Ca': 10.0, 'Sn': 6.0}\",\"('Ca', 'Sn')\",OTHERS,False\nmp-1198305,\"{'Ce': 40.0, 'Se': 56.0, 'O': 4.0}\",\"('Ce', 'O', 'Se')\",OTHERS,False\nmp-1196696,\"{'Na': 28.0, 'U': 4.0, 'H': 16.0, 'S': 16.0, 'Cl': 4.0, 'O': 80.0}\",\"('Cl', 'H', 'Na', 'O', 'S', 'U')\",OTHERS,False\nmp-756452,\"{'Sm': 4.0, 'Dy': 4.0, 'O': 12.0}\",\"('Dy', 'O', 'Sm')\",OTHERS,False\nmp-1114497,\"{'Rb': 3.0, 'Ga': 1.0, 'Br': 6.0}\",\"('Br', 'Ga', 'Rb')\",OTHERS,False\nmp-1208173,\"{'V': 4.0, 'Pb': 4.0, 'O': 8.0}\",\"('O', 'Pb', 'V')\",OTHERS,False\nmp-1177282,\"{'Li': 4.0, 'Ti': 2.0, 'Mn': 3.0, 'V': 3.0, 'O': 16.0}\",\"('Li', 'Mn', 'O', 'Ti', 'V')\",OTHERS,False\nmp-1070498,\"{'Rb': 2.0, 'Te': 2.0, 'Pt': 1.0}\",\"('Pt', 'Rb', 'Te')\",OTHERS,False\nmp-555688,\"{'W': 4.0, 'S': 8.0, 'N': 12.0, 'Cl': 12.0}\",\"('Cl', 'N', 'S', 'W')\",OTHERS,False\nmp-1194130,\"{'Zr': 16.0, 'Pd': 8.0, 'N': 4.0}\",\"('N', 'Pd', 'Zr')\",OTHERS,False\nmp-1239263,\"{'Hf': 4.0, 'Cr': 4.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cr', 'Cu', 'Hf', 'S')\",OTHERS,False\nmp-779467,\"{'Li': 9.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1095823,\"{'Zn': 2.0, 'Ag': 1.0, 'Ir': 1.0}\",\"('Ag', 'Ir', 'Zn')\",OTHERS,False\nmp-33554,\"{'Cl': 6.0, 'Gd': 1.0, 'Na': 3.0}\",\"('Cl', 'Gd', 'Na')\",OTHERS,False\nmp-985301,\"{'Ac': 1.0, 'Dy': 3.0}\",\"('Ac', 'Dy')\",OTHERS,False\nmp-22017,\"{'In': 4.0, 'La': 2.0, 'Ir': 2.0}\",\"('In', 'Ir', 'La')\",OTHERS,False\nmp-1223441,\"{'K': 1.0, 'Ba': 1.0, 'Li': 1.0, 'Zn': 1.0, 'F': 6.0}\",\"('Ba', 'F', 'K', 'Li', 'Zn')\",OTHERS,False\nmp-1178389,\"{'Fe': 2.0, 'Co': 3.0, 'Sb': 3.0, 'O': 16.0}\",\"('Co', 'Fe', 'O', 'Sb')\",OTHERS,False\nmp-31169,\"{'Al': 1.0, 'Sc': 1.0, 'Ag': 2.0}\",\"('Ag', 'Al', 'Sc')\",OTHERS,False\nmp-570463,\"{'Ta': 8.0, 'Co': 16.0}\",\"('Co', 'Ta')\",OTHERS,False\nmp-14718,\"{'Na': 12.0, 'Mn': 6.0, 'Cr': 6.0, 'F': 42.0}\",\"('Cr', 'F', 'Mn', 'Na')\",OTHERS,False\nmp-1225248,\"{'Fe': 36.0, 'B': 4.0, 'P': 8.0}\",\"('B', 'Fe', 'P')\",OTHERS,False\nmp-1260870,\"{'Ba': 2.0, 'Ti': 3.0, 'Al': 1.0, 'O': 7.0}\",\"('Al', 'Ba', 'O', 'Ti')\",OTHERS,False\nmp-1189173,\"{'La': 6.0, 'Bi': 8.0, 'Pt': 6.0}\",\"('Bi', 'La', 'Pt')\",OTHERS,False\nmp-778476,\"{'Li': 6.0, 'Mn': 5.0, 'Fe': 1.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-698362,\"{'H': 88.0, 'Ir': 4.0, 'C': 12.0, 'N': 24.0, 'O': 32.0}\",\"('C', 'H', 'Ir', 'N', 'O')\",OTHERS,False\nmp-1095898,\"{'Sc': 2.0, 'Ge': 1.0, 'Pd': 1.0}\",\"('Ge', 'Pd', 'Sc')\",OTHERS,False\nmp-985557,\"{'Ce': 3.0, 'Dy': 1.0}\",\"('Ce', 'Dy')\",OTHERS,False\nmp-567241,\"{'Pr': 3.0, 'Ag': 4.0, 'Sn': 4.0}\",\"('Ag', 'Pr', 'Sn')\",OTHERS,False\nmp-7187,\"{'Al': 1.0, 'Ti': 1.0, 'Ni': 2.0}\",\"('Al', 'Ni', 'Ti')\",OTHERS,False\nmp-11441,\"{'Ga': 6.0, 'Hf': 4.0}\",\"('Ga', 'Hf')\",OTHERS,False\nmp-1202551,\"{'Cu': 8.0, 'As': 8.0, 'H': 24.0, 'O': 40.0}\",\"('As', 'Cu', 'H', 'O')\",OTHERS,False\nmp-1213357,\"{'K': 12.0, 'Sm': 8.0, 'N': 36.0, 'O': 108.0}\",\"('K', 'N', 'O', 'Sm')\",OTHERS,False\nmp-752642,\"{'V': 4.0, 'As': 4.0, 'O': 16.0}\",\"('As', 'O', 'V')\",OTHERS,False\nmp-570360,\"{'Rb': 4.0, 'Nd': 8.0, 'I': 20.0}\",\"('I', 'Nd', 'Rb')\",OTHERS,False\nmp-774496,\"{'Li': 30.0, 'Mn': 6.0, 'Si': 24.0, 'O': 72.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1038896,\"{'Mg': 4.0, 'Bi': 8.0}\",\"('Bi', 'Mg')\",OTHERS,False\nmp-10669,\"{'Al': 2.0, 'Ge': 2.0, 'Ba': 3.0}\",\"('Al', 'Ba', 'Ge')\",OTHERS,False\nmp-10963,\"{'Se': 8.0, 'Ag': 4.0, 'Sn': 2.0, 'Hg': 2.0}\",\"('Ag', 'Hg', 'Se', 'Sn')\",OTHERS,False\nmp-1201365,\"{'Pu': 8.0, 'Re': 4.0, 'B': 24.0}\",\"('B', 'Pu', 'Re')\",OTHERS,False\nmp-1223006,\"{'La': 1.0, 'Al': 2.0, 'Ag': 3.0}\",\"('Ag', 'Al', 'La')\",OTHERS,False\nmp-1247428,\"{'Ca': 6.0, 'Re': 2.0, 'N': 6.0}\",\"('Ca', 'N', 'Re')\",OTHERS,False\nmp-1207311,\"{'Nd': 2.0, 'Ag': 1.0, 'Sb': 3.0}\",\"('Ag', 'Nd', 'Sb')\",OTHERS,False\nmp-27725,\"{'I': 4.0, 'Au': 4.0}\",\"('Au', 'I')\",OTHERS,False\nmp-1208738,\"{'Tb': 12.0, 'Ni': 6.0, 'Pb': 1.0}\",\"('Ni', 'Pb', 'Tb')\",OTHERS,False\nmp-861886,\"{'Li': 1.0, 'Dy': 1.0, 'Hg': 2.0}\",\"('Dy', 'Hg', 'Li')\",OTHERS,False\nmp-560920,\"{'Si': 32.0, 'O': 64.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1227645,\"{'Ba': 1.0, 'Sr': 1.0, 'Hf': 2.0, 'O': 6.0}\",\"('Ba', 'Hf', 'O', 'Sr')\",OTHERS,False\nmp-568476,\"{'Bi': 4.0, 'Pd': 8.0, 'Pb': 4.0}\",\"('Bi', 'Pb', 'Pd')\",OTHERS,False\nmp-867627,\"{'Ba': 12.0, 'Pt': 9.0, 'O': 27.0}\",\"('Ba', 'O', 'Pt')\",OTHERS,False\nmp-758743,\"{'Li': 8.0, 'Cu': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'Si')\",OTHERS,False\nmp-555318,\"{'K': 4.0, 'Zn': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('K', 'O', 'Si', 'Zn')\",OTHERS,False\nmp-25372,\"{'Li': 1.0, 'Cu': 1.0, 'O': 2.0}\",\"('Cu', 'Li', 'O')\",OTHERS,False\nmp-1080177,\"{'Pu': 3.0, 'Al': 3.0, 'Ni': 3.0}\",\"('Al', 'Ni', 'Pu')\",OTHERS,False\nmp-864904,\"{'Ho': 1.0, 'Cd': 1.0, 'Ag': 2.0}\",\"('Ag', 'Cd', 'Ho')\",OTHERS,False\nmp-505271,\"{'O': 12.0, 'Ni': 2.0, 'Sb': 4.0}\",\"('Ni', 'O', 'Sb')\",OTHERS,False\nmp-1019783,\"{'K': 16.0, 'S': 16.0, 'O': 24.0}\",\"('K', 'O', 'S')\",OTHERS,False\nmp-1095608,\"{'K': 2.0, 'P': 2.0, 'O': 8.0}\",\"('K', 'O', 'P')\",OTHERS,False\nmp-1095957,\"{'Mg': 1.0, 'Os': 2.0, 'W': 1.0}\",\"('Mg', 'Os', 'W')\",OTHERS,False\nmp-758324,\"{'Ti': 10.0, 'Nb': 4.0, 'O': 28.0}\",\"('Nb', 'O', 'Ti')\",OTHERS,False\nmp-1106407,\"{'Hf': 3.0, 'Co': 9.0, 'B': 6.0}\",\"('B', 'Co', 'Hf')\",OTHERS,False\nmp-18547,\"{'O': 16.0, 'Na': 4.0, 'Ge': 4.0, 'Gd': 4.0}\",\"('Gd', 'Ge', 'Na', 'O')\",OTHERS,False\nmp-1264900,\"{'Mg': 8.0, 'Mn': 8.0, 'Si': 12.0, 'O': 48.0}\",\"('Mg', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1204063,\"{'Li': 88.0, 'Ge': 20.0}\",\"('Ge', 'Li')\",OTHERS,False\nmp-1174644,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-8348,\"{'Tl': 1.0, 'Sb': 1.0, 'F': 6.0}\",\"('F', 'Sb', 'Tl')\",OTHERS,False\nmp-1194936,\"{'Mg': 64.0, 'Si': 32.0, 'Bi': 1.0}\",\"('Bi', 'Mg', 'Si')\",OTHERS,False\nmp-1197529,\"{'Sr': 2.0, 'Au': 4.0, 'S': 8.0, 'O': 32.0}\",\"('Au', 'O', 'S', 'Sr')\",OTHERS,False\nmp-5156,\"{'O': 28.0, 'P': 8.0, 'Th': 4.0}\",\"('O', 'P', 'Th')\",OTHERS,False\nmp-640915,\"{'Na': 8.0, 'La': 4.0, 'P': 4.0, 'S': 8.0, 'O': 28.0}\",\"('La', 'Na', 'O', 'P', 'S')\",OTHERS,False\nmp-1113880,\"{'Rb': 2.0, 'Al': 1.0, 'Cu': 1.0, 'F': 6.0}\",\"('Al', 'Cu', 'F', 'Rb')\",OTHERS,False\nmp-1205230,\"{'Si': 8.0, 'H': 64.0, 'C': 32.0, 'I': 32.0}\",\"('C', 'H', 'I', 'Si')\",OTHERS,False\nmp-863732,\"{'Pm': 2.0, 'Pt': 1.0, 'Rh': 1.0}\",\"('Pm', 'Pt', 'Rh')\",OTHERS,False\nmp-1175245,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-558862,\"{'Na': 2.0, 'Ge': 8.0, 'P': 6.0, 'O': 24.0}\",\"('Ge', 'Na', 'O', 'P')\",OTHERS,False\nmp-1102925,\"{'Nb': 4.0, 'Fe': 4.0, 'Si': 4.0}\",\"('Fe', 'Nb', 'Si')\",OTHERS,False\nAl 73 Ir 14.5 Os 12.5,\"{'Al': 73.0, 'Ir': 14.5, 'Os': 12.5}\",\"('Al', 'Ir', 'Os')\",QC,False\nmp-29443,\"{'P': 2.0, 'I': 4.0}\",\"('I', 'P')\",OTHERS,False\nmp-1078343,\"{'U': 1.0, 'Ga': 5.0, 'Ru': 1.0}\",\"('Ga', 'Ru', 'U')\",OTHERS,False\nmp-1262565,\"{'Mg': 8.0, 'Ti': 8.0, 'Si': 16.0, 'O': 48.0}\",\"('Mg', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-756010,\"{'Fe': 6.0, 'O': 10.0, 'F': 2.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1186353,\"{'Nd': 6.0, 'Np': 2.0}\",\"('Nd', 'Np')\",OTHERS,False\nmvc-6707,\"{'Mg': 2.0, 'Sn': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Mg', 'O', 'P', 'Sn')\",OTHERS,False\nmp-769713,\"{'Na': 8.0, 'B': 8.0, 'Sb': 4.0, 'S': 2.0, 'O': 32.0}\",\"('B', 'Na', 'O', 'S', 'Sb')\",OTHERS,False\nmp-1173939,\"{'Li': 4.0, 'Mn': 2.0, 'O': 6.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1189044,\"{'Ti': 12.0, 'Ge': 4.0}\",\"('Ge', 'Ti')\",OTHERS,False\nmp-771043,\"{'Y': 8.0, 'Zr': 8.0, 'O': 28.0}\",\"('O', 'Y', 'Zr')\",OTHERS,False\nmp-775289,\"{'Mn': 3.0, 'Cr': 1.0, 'Cu': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Cu', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1245323,\"{'Al': 40.0, 'O': 60.0}\",\"('Al', 'O')\",OTHERS,False\nmp-733936,\"{'Cs': 8.0, 'Mg': 4.0, 'H': 32.0, 'C': 8.0, 'O': 40.0}\",\"('C', 'Cs', 'H', 'Mg', 'O')\",OTHERS,False\nmp-557035,\"{'K': 6.0, 'S': 2.0, 'O': 8.0, 'F': 2.0}\",\"('F', 'K', 'O', 'S')\",OTHERS,False\nmp-771232,\"{'Li': 5.0, 'Mn': 2.0, 'Ni': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'Ni', 'O')\",OTHERS,False\nmp-606102,\"{'Ce': 3.0, 'In': 3.0, 'Ru': 2.0}\",\"('Ce', 'In', 'Ru')\",OTHERS,False\nmp-1218851,\"{'Sr': 2.0, 'Ca': 1.0, 'Ti': 3.0, 'O': 9.0}\",\"('Ca', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-755552,\"{'Li': 1.0, 'Y': 1.0, 'S': 2.0}\",\"('Li', 'S', 'Y')\",OTHERS,False\nmp-19453,\"{'O': 28.0, 'Mo': 4.0, 'Te': 8.0}\",\"('Mo', 'O', 'Te')\",OTHERS,False\nmp-605735,\"{'Sr': 6.0, 'In': 8.0, 'Pb': 2.0}\",\"('In', 'Pb', 'Sr')\",OTHERS,False\nmp-25382,\"{'O': 8.0, 'F': 2.0, 'P': 2.0, 'Fe': 2.0}\",\"('F', 'Fe', 'O', 'P')\",OTHERS,False\nmp-560247,\"{'Li': 4.0, 'Ca': 4.0, 'Si': 10.0, 'O': 26.0}\",\"('Ca', 'Li', 'O', 'Si')\",OTHERS,False\nmp-558997,\"{'Sm': 2.0, 'Mo': 2.0, 'Cl': 2.0, 'O': 8.0}\",\"('Cl', 'Mo', 'O', 'Sm')\",OTHERS,False\nmp-1215148,\"{'Ce': 4.0, 'W': 8.0, 'S': 6.0, 'O': 28.0}\",\"('Ce', 'O', 'S', 'W')\",OTHERS,False\nmp-1225405,\"{'Dy': 2.0, 'In': 3.0, 'Cu': 1.0}\",\"('Cu', 'Dy', 'In')\",OTHERS,False\nmp-18340,\"{'O': 24.0, 'Mo': 4.0, 'Tb': 8.0}\",\"('Mo', 'O', 'Tb')\",OTHERS,False\nmp-504927,\"{'O': 8.0, 'Cr': 2.0, 'Cu': 2.0}\",\"('Cr', 'Cu', 'O')\",OTHERS,False\nmp-1106252,\"{'Nd': 10.0, 'Ga': 6.0}\",\"('Ga', 'Nd')\",OTHERS,False\nmp-3107,\"{'O': 7.0, 'P': 1.0, 'Ga': 3.0}\",\"('Ga', 'O', 'P')\",OTHERS,False\nmp-1212904,\"{'Dy': 10.0, 'Co': 4.0, 'Bi': 2.0}\",\"('Bi', 'Co', 'Dy')\",OTHERS,False\nmp-1181689,\"{'Cs': 6.0, 'Ba': 8.0, 'C': 6.0, 'O': 18.0, 'F': 10.0}\",\"('Ba', 'C', 'Cs', 'F', 'O')\",OTHERS,False\nmp-567114,\"{'Sr': 2.0, 'Bi': 4.0, 'Pd': 4.0}\",\"('Bi', 'Pd', 'Sr')\",OTHERS,False\nAu 49.7 In 35.4 Ce 14.9,\"{'Au': 49.7, 'In': 35.4, 'Ce': 14.9}\",\"('Au', 'Ce', 'In')\",AC,False\nmp-1181604,\"{'Fe': 4.0, 'H': 4.0, 'O': 8.0}\",\"('Fe', 'H', 'O')\",OTHERS,False\nmp-654008,\"{'K': 3.0, 'Cr': 11.0, 'S': 18.0}\",\"('Cr', 'K', 'S')\",OTHERS,False\nmp-675532,\"{'La': 2.0, 'Ti': 12.0, 'O': 24.0}\",\"('La', 'O', 'Ti')\",OTHERS,False\nmp-1179601,\"{'Sb': 8.0, 'N': 12.0, 'Cl': 28.0, 'O': 4.0}\",\"('Cl', 'N', 'O', 'Sb')\",OTHERS,False\nmp-1093852,\"{'Y': 1.0, 'Sc': 1.0, 'Pt': 2.0}\",\"('Pt', 'Sc', 'Y')\",OTHERS,False\nmp-21294,\"{'Y': 4.0, 'In': 2.0}\",\"('In', 'Y')\",OTHERS,False\nmp-1216675,\"{'Ti': 1.0, 'Mo': 2.0}\",\"('Mo', 'Ti')\",OTHERS,False\nmp-1291,\"{'In': 3.0, 'Er': 1.0}\",\"('Er', 'In')\",OTHERS,False\nmp-557432,\"{'Ge': 4.0, 'Cl': 4.0, 'O': 8.0, 'F': 20.0}\",\"('Cl', 'F', 'Ge', 'O')\",OTHERS,False\nmp-1096958,\"{'Dy': 2.0, 'Mn': 4.0, 'O': 8.0}\",\"('Dy', 'Mn', 'O')\",OTHERS,False\nmp-1226961,\"{'Ce': 2.0, 'Pr': 4.0, 'S': 8.0}\",\"('Ce', 'Pr', 'S')\",OTHERS,False\nmp-649944,\"{'Na': 8.0, 'Cu': 12.0, 'Si': 16.0, 'O': 48.0}\",\"('Cu', 'Na', 'O', 'Si')\",OTHERS,False\nmp-569879,\"{'Cs': 2.0, 'Ta': 6.0, 'Pb': 1.0, 'Cl': 18.0}\",\"('Cl', 'Cs', 'Pb', 'Ta')\",OTHERS,False\nmp-1246896,\"{'Mn': 6.0, 'Al': 2.0, 'N': 6.0}\",\"('Al', 'Mn', 'N')\",OTHERS,False\nmp-631582,\"{'Al': 1.0, 'Tc': 2.0, 'Pb': 1.0}\",\"('Al', 'Pb', 'Tc')\",OTHERS,False\nmp-1074259,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1227844,\"{'Ba': 1.0, 'La': 1.0, 'Mn': 2.0, 'O': 6.0}\",\"('Ba', 'La', 'Mn', 'O')\",OTHERS,False\nmp-775903,\"{'Li': 4.0, 'Mn': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1095340,\"{'Ba': 2.0, 'Tb': 2.0, 'Ag': 2.0, 'S': 6.0}\",\"('Ag', 'Ba', 'S', 'Tb')\",OTHERS,False\nmp-556062,\"{'Na': 2.0, 'Nb': 8.0, 'Tl': 6.0, 'P': 4.0, 'O': 34.0}\",\"('Na', 'Nb', 'O', 'P', 'Tl')\",OTHERS,False\nmp-677029,\"{'Ca': 4.0, 'Mg': 2.0, 'Al': 4.0, 'Si': 6.0, 'O': 24.0}\",\"('Al', 'Ca', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1095985,\"{'Mg': 1.0, 'Ti': 1.0, 'Au': 2.0}\",\"('Au', 'Mg', 'Ti')\",OTHERS,False\nmp-1223342,\"{'La': 4.0, 'Mn': 2.0, 'Cr': 2.0, 'O': 12.0}\",\"('Cr', 'La', 'Mn', 'O')\",OTHERS,False\nmp-1030704,\"{'Na': 30.0, 'W': 14.0, 'N': 38.0}\",\"('N', 'Na', 'W')\",OTHERS,False\nmp-552113,\"{'V': 4.0, 'O': 6.0}\",\"('O', 'V')\",OTHERS,False\nmp-1196520,\"{'V': 8.0, 'P': 8.0, 'N': 8.0, 'O': 48.0}\",\"('N', 'O', 'P', 'V')\",OTHERS,False\nmp-863767,\"{'Fe': 26.0, 'Sn': 4.0, 'O': 40.0}\",\"('Fe', 'O', 'Sn')\",OTHERS,False\nmp-779587,\"{'Ti': 6.0, 'P': 6.0, 'O': 24.0}\",\"('O', 'P', 'Ti')\",OTHERS,False\nmp-38284,\"{'Ce': 8.0, 'Nd': 8.0, 'O': 28.0}\",\"('Ce', 'Nd', 'O')\",OTHERS,False\nmp-756490,\"{'Li': 12.0, 'Mn': 2.0, 'S': 8.0}\",\"('Li', 'Mn', 'S')\",OTHERS,False\nmp-1112437,\"{'Rb': 2.0, 'Pr': 1.0, 'Cu': 1.0, 'I': 6.0}\",\"('Cu', 'I', 'Pr', 'Rb')\",OTHERS,False\nmp-1203006,\"{'Lu': 6.0, 'Ge': 26.0, 'Ru': 8.0}\",\"('Ge', 'Lu', 'Ru')\",OTHERS,False\nmp-695119,\"{'Na': 6.0, 'Zr': 4.0, 'Si': 4.0, 'P': 2.0, 'O': 24.0}\",\"('Na', 'O', 'P', 'Si', 'Zr')\",OTHERS,False\nmp-1101512,\"{'Li': 4.0, 'Fe': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-22025,\"{'O': 7.0, 'Co': 2.0, 'As': 2.0}\",\"('As', 'Co', 'O')\",OTHERS,False\nmp-27359,\"{'Cl': 6.0, 'Sc': 2.0, 'Cs': 2.0}\",\"('Cl', 'Cs', 'Sc')\",OTHERS,False\nmp-972448,\"{'Sm': 4.0, 'B': 4.0, 'S': 12.0}\",\"('B', 'S', 'Sm')\",OTHERS,False\nmp-674423,\"{'Sr': 20.0, 'Ta': 8.0, 'O': 39.0}\",\"('O', 'Sr', 'Ta')\",OTHERS,False\nmp-775128,\"{'Fe': 3.0, 'Sb': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'O', 'P', 'Sb')\",OTHERS,False\nmp-978490,\"{'Si': 1.0, 'Pd': 1.0, 'O': 3.0}\",\"('O', 'Pd', 'Si')\",OTHERS,False\nmp-569943,\"{'K': 8.0, 'Ag': 4.0, 'I': 12.0}\",\"('Ag', 'I', 'K')\",OTHERS,False\nmp-1096843,\"{'Ba': 1.0, 'Cu': 1.0, 'S': 2.0}\",\"('Ba', 'Cu', 'S')\",OTHERS,False\nmp-640950,\"{'Na': 6.0, 'B': 54.0, 'Se': 48.0}\",\"('B', 'Na', 'Se')\",OTHERS,False\nmp-19137,\"{'O': 6.0, 'K': 2.0, 'Mn': 1.0, 'Se': 2.0}\",\"('K', 'Mn', 'O', 'Se')\",OTHERS,False\nmp-1215786,\"{'Zn': 2.0, 'Cd': 6.0, 'Ge': 2.0, 'S': 12.0}\",\"('Cd', 'Ge', 'S', 'Zn')\",OTHERS,False\nmp-571580,\"{'Er': 56.0, 'In': 12.0, 'Pd': 12.0}\",\"('Er', 'In', 'Pd')\",OTHERS,False\nmp-556481,\"{'Sr': 2.0, 'U': 2.0, 'Se': 4.0, 'O': 16.0}\",\"('O', 'Se', 'Sr', 'U')\",OTHERS,False\nmp-759603,\"{'H': 36.0, 'C': 4.0, 'N': 20.0, 'Cl': 8.0}\",\"('C', 'Cl', 'H', 'N')\",OTHERS,False\nmp-1184082,\"{'Er': 2.0, 'Zn': 1.0, 'Hg': 1.0}\",\"('Er', 'Hg', 'Zn')\",OTHERS,False\nmp-16342,\"{'Ge': 2.0, 'Ho': 2.0}\",\"('Ge', 'Ho')\",OTHERS,False\nmp-1188076,\"{'Th': 1.0, 'Mg': 149.0}\",\"('Mg', 'Th')\",OTHERS,False\nmp-1147741,\"{'Li': 32.0, 'Zn': 8.0, 'P': 16.0, 'S': 64.0}\",\"('Li', 'P', 'S', 'Zn')\",OTHERS,False\nmp-11604,\"{'S': 8.0, 'K': 2.0, 'Cu': 2.0, 'Sm': 4.0}\",\"('Cu', 'K', 'S', 'Sm')\",OTHERS,False\nmp-1079860,\"{'Hf': 3.0, 'Ga': 3.0, 'Ni': 3.0}\",\"('Ga', 'Hf', 'Ni')\",OTHERS,False\nmp-1194612,\"{'Y': 4.0, 'Nb': 4.0, 'Te': 8.0, 'O': 32.0}\",\"('Nb', 'O', 'Te', 'Y')\",OTHERS,False\nmp-11275,\"{'Be': 8.0, 'Re': 4.0}\",\"('Be', 'Re')\",OTHERS,False\nmp-554805,\"{'Sr': 12.0, 'Se': 12.0, 'Cl': 8.0, 'O': 32.0}\",\"('Cl', 'O', 'Se', 'Sr')\",OTHERS,False\nmp-560833,\"{'B': 12.0, 'Pb': 24.0, 'Cl': 4.0, 'O': 40.0}\",\"('B', 'Cl', 'O', 'Pb')\",OTHERS,False\nmp-1074408,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-17395,\"{'B': 10.0, 'O': 20.0, 'Cu': 2.0, 'Tm': 2.0}\",\"('B', 'Cu', 'O', 'Tm')\",OTHERS,False\nAl 65 Cu 20 Ru 15,\"{'Al': 65.0, 'Cu': 20.0, 'Ru': 15.0}\",\"('Al', 'Cu', 'Ru')\",QC,False\nmp-10003,\"{'Si': 2.0, 'Co': 2.0, 'Nb': 8.0}\",\"('Co', 'Nb', 'Si')\",OTHERS,False\nmp-219,\"{'P': 1.0, 'Mo': 1.0}\",\"('Mo', 'P')\",OTHERS,False\nmp-1019253,\"{'Sm': 2.0, 'Se': 4.0}\",\"('Se', 'Sm')\",OTHERS,False\nmp-1250551,\"{'Si': 112.0, 'O': 224.0}\",\"('O', 'Si')\",OTHERS,False\nmp-27474,\"{'Pa': 2.0, 'Br': 8.0}\",\"('Br', 'Pa')\",OTHERS,False\nmp-616507,\"{'Cs': 4.0, 'Na': 4.0, 'Ir': 2.0, 'O': 8.0}\",\"('Cs', 'Ir', 'Na', 'O')\",OTHERS,False\nmp-1208821,\"{'Sr': 2.0, 'Zn': 2.0, 'O': 10.0}\",\"('O', 'Sr', 'Zn')\",OTHERS,False\nmvc-2541,\"{'Sr': 2.0, 'Y': 1.0, 'Tl': 1.0, 'V': 2.0, 'O': 7.0}\",\"('O', 'Sr', 'Tl', 'V', 'Y')\",OTHERS,False\nmp-1112505,\"{'Cs': 2.0, 'Al': 1.0, 'Tl': 1.0, 'Cl': 6.0}\",\"('Al', 'Cl', 'Cs', 'Tl')\",OTHERS,False\nmp-567511,\"{'H': 32.0, 'Pt': 4.0, 'C': 4.0, 'N': 32.0}\",\"('C', 'H', 'N', 'Pt')\",OTHERS,False\nmp-17314,\"{'Li': 2.0, 'O': 32.0, 'P': 6.0, 'Mo': 6.0}\",\"('Li', 'Mo', 'O', 'P')\",OTHERS,False\nmp-776165,\"{'Ag': 4.0, 'Au': 4.0, 'O': 12.0}\",\"('Ag', 'Au', 'O')\",OTHERS,False\nmp-1211437,\"{'La': 4.0, 'W': 4.0, 'O': 8.0}\",\"('La', 'O', 'W')\",OTHERS,False\nmp-569543,\"{'Cs': 2.0, 'La': 2.0, 'Zr': 12.0, 'Fe': 2.0, 'Cl': 36.0}\",\"('Cl', 'Cs', 'Fe', 'La', 'Zr')\",OTHERS,False\nZn 80 Sc 15 Mg 5,\"{'Zn': 80.0, 'Sc': 15.0, 'Mg': 5.0}\",\"('Mg', 'Sc', 'Zn')\",QC,False\nmp-707055,\"{'Na': 16.0, 'Ge': 8.0, 'H': 96.0, 'S': 16.0, 'O': 56.0}\",\"('Ge', 'H', 'Na', 'O', 'S')\",OTHERS,False\nmp-1219928,\"{'Pd': 1.0, 'Pt': 1.0, 'Au': 1.0}\",\"('Au', 'Pd', 'Pt')\",OTHERS,False\nmp-1200211,\"{'Ca': 6.0, 'Sn': 26.0, 'Ir': 8.0}\",\"('Ca', 'Ir', 'Sn')\",OTHERS,False\nmp-1102043,\"{'La': 4.0, 'Os': 8.0}\",\"('La', 'Os')\",OTHERS,False\nmp-760329,\"{'Li': 6.0, 'V': 4.0, 'F': 24.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1208095,\"{'Yb': 3.0, 'N': 21.0, 'O': 45.0}\",\"('N', 'O', 'Yb')\",OTHERS,False\nmp-1102036,\"{'Ni': 6.0, 'P': 6.0}\",\"('Ni', 'P')\",OTHERS,False\nmp-1201500,\"{'Ca': 2.0, 'Fe': 10.0, 'P': 10.0, 'O': 44.0}\",\"('Ca', 'Fe', 'O', 'P')\",OTHERS,False\nmp-11595,\"{'Ge': 6.0, 'Yb': 10.0}\",\"('Ge', 'Yb')\",OTHERS,False\nmp-1080202,\"{'Fe': 4.0, 'N': 8.0}\",\"('Fe', 'N')\",OTHERS,False\nmp-1191502,\"{'V': 2.0, 'In': 2.0, 'Se': 4.0, 'O': 16.0}\",\"('In', 'O', 'Se', 'V')\",OTHERS,False\nmp-1025223,\"{'Hf': 4.0, 'Al': 3.0}\",\"('Al', 'Hf')\",OTHERS,False\nmp-631436,\"{'V': 1.0, 'Os': 1.0, 'Cl': 1.0}\",\"('Cl', 'Os', 'V')\",OTHERS,False\nmp-1101293,\"{'Ti': 3.0, 'V': 1.0, 'Ni': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Ni', 'O', 'P', 'Ti', 'V')\",OTHERS,False\nmp-973391,\"{'Li': 4.0, 'Si': 4.0, 'B': 24.0}\",\"('B', 'Li', 'Si')\",OTHERS,False\nmp-778744,\"{'Li': 4.0, 'Mn': 2.0, 'Ni': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'Mn', 'Ni', 'O', 'P')\",OTHERS,False\nmp-570491,\"{'Ta': 1.0, 'Ni': 3.0}\",\"('Ni', 'Ta')\",OTHERS,False\nmp-1198791,\"{'Sb': 8.0, 'Te': 12.0, 'W': 4.0, 'C': 16.0, 'O': 16.0, 'F': 48.0}\",\"('C', 'F', 'O', 'Sb', 'Te', 'W')\",OTHERS,False\nmp-1249484,\"{'K': 2.0, 'Mg': 6.0, 'Al': 2.0, 'Si': 6.0, 'O': 20.0, 'F': 4.0}\",\"('Al', 'F', 'K', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-542658,\"{'K': 4.0, 'Mo': 8.0, 'O': 26.0}\",\"('K', 'Mo', 'O')\",OTHERS,False\nmp-764498,\"{'Mn': 12.0, 'O': 7.0, 'F': 17.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1225451,\"{'Dy': 12.0, 'Co': 9.0}\",\"('Co', 'Dy')\",OTHERS,False\nmp-1205629,\"{'Cs': 3.0, 'Fe': 1.0, 'F': 6.0}\",\"('Cs', 'F', 'Fe')\",OTHERS,False\nmp-1096801,\"{'Ba': 2.0, 'Zr': 2.0, 'P': 4.0}\",\"('Ba', 'P', 'Zr')\",OTHERS,False\nmp-1079720,\"{'Ag': 4.0, 'O': 4.0}\",\"('Ag', 'O')\",OTHERS,False\nmp-1216030,\"{'Yb': 4.0, 'Fe': 1.0, 'S': 7.0}\",\"('Fe', 'S', 'Yb')\",OTHERS,False\nmp-997048,\"{'Ag': 2.0, 'Br': 2.0, 'O': 4.0}\",\"('Ag', 'Br', 'O')\",OTHERS,False\nmp-1185542,\"{'Cs': 1.0, 'K': 2.0, 'Rb': 1.0}\",\"('Cs', 'K', 'Rb')\",OTHERS,False\nmp-30029,\"{'Ni': 39.0, 'Ga': 9.0, 'Ge': 18.0}\",\"('Ga', 'Ge', 'Ni')\",OTHERS,False\nmp-1095337,\"{'Sm': 2.0, 'V': 2.0, 'O': 8.0}\",\"('O', 'Sm', 'V')\",OTHERS,False\nmp-8179,\"{'Li': 2.0, 'O': 4.0, 'Tl': 2.0}\",\"('Li', 'O', 'Tl')\",OTHERS,False\nmp-20373,\"{'B': 4.0, 'Co': 12.0}\",\"('B', 'Co')\",OTHERS,False\nGa 35 V 45 Ni 6 Si 14,\"{'Ga': 35.0, 'V': 45.0, 'Ni': 6.0, 'Si': 14.0}\",\"('Ga', 'Ni', 'Si', 'V')\",QC,False\nmp-756672,\"{'Li': 16.0, 'Si': 16.0, 'Bi': 8.0, 'O': 52.0}\",\"('Bi', 'Li', 'O', 'Si')\",OTHERS,False\nmp-755081,\"{'Li': 8.0, 'Ni': 5.0, 'O': 10.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmp-19271,\"{'O': 12.0, 'Cr': 4.0, 'Ba': 4.0}\",\"('Ba', 'Cr', 'O')\",OTHERS,False\nmvc-4661,\"{'Zn': 2.0, 'Sb': 4.0, 'O': 8.0}\",\"('O', 'Sb', 'Zn')\",OTHERS,False\nmp-772819,\"{'K': 6.0, 'Cu': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Cu', 'K', 'O', 'P')\",OTHERS,False\nmp-1096787,\"{'Al': 2.0, 'Zn': 2.0, 'S': 5.0}\",\"('Al', 'S', 'Zn')\",OTHERS,False\nmp-4165,\"{'N': 4.0, 'O': 4.0, 'Ta': 4.0}\",\"('N', 'O', 'Ta')\",OTHERS,False\nmp-510569,\"{'Cs': 2.0, 'Ce': 2.0, 'Cu': 2.0, 'S': 6.0}\",\"('Ce', 'Cs', 'Cu', 'S')\",OTHERS,False\nmp-11563,\"{'Ti': 1.0, 'Rh': 1.0}\",\"('Rh', 'Ti')\",OTHERS,False\nmp-554115,\"{'Zn': 24.0, 'S': 24.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-10200,\"{'Be': 2.0, 'Si': 2.0, 'Zr': 2.0}\",\"('Be', 'Si', 'Zr')\",OTHERS,False\nmp-554142,\"{'Ge': 2.0, 'Te': 4.0, 'O': 12.0}\",\"('Ge', 'O', 'Te')\",OTHERS,False\nmp-1216888,\"{'U': 3.0, 'Al': 3.0, 'Co': 1.0, 'Rh': 2.0}\",\"('Al', 'Co', 'Rh', 'U')\",OTHERS,False\nmp-755936,\"{'Lu': 2.0, 'W': 2.0, 'O': 8.0}\",\"('Lu', 'O', 'W')\",OTHERS,False\nmp-1224789,\"{'Ga': 2.0, 'As': 1.0, 'P': 1.0}\",\"('As', 'Ga', 'P')\",OTHERS,False\nmp-29516,\"{'Br': 32.0, 'Rh': 4.0, 'Bi': 28.0}\",\"('Bi', 'Br', 'Rh')\",OTHERS,False\nmp-1216452,\"{'V': 6.0, 'Si': 1.0, 'C': 1.0}\",\"('C', 'Si', 'V')\",OTHERS,False\nmp-1220245,\"{'Nd': 2.0, 'Zn': 1.0, 'Sb': 4.0}\",\"('Nd', 'Sb', 'Zn')\",OTHERS,False\nmp-38077,\"{'Ce': 5.0, 'K': 1.0, 'S': 8.0}\",\"('Ce', 'K', 'S')\",OTHERS,False\nmp-27167,\"{'F': 6.0, 'Sn': 4.0, 'I': 2.0}\",\"('F', 'I', 'Sn')\",OTHERS,False\nmp-780803,\"{'Li': 16.0, 'Fe': 16.0, 'F': 48.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-759065,\"{'Li': 12.0, 'V': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1191432,\"{'Ce': 6.0, 'Al': 2.0, 'Cd': 2.0, 'S': 14.0}\",\"('Al', 'Cd', 'Ce', 'S')\",OTHERS,False\nmp-978255,\"{'Mg': 2.0, 'Ti': 6.0}\",\"('Mg', 'Ti')\",OTHERS,False\nmp-546707,\"{'Na': 4.0, 'O': 4.0, 'C': 1.0}\",\"('C', 'Na', 'O')\",OTHERS,False\nmp-20699,\"{'Y': 4.0, 'Mn': 4.0, 'O': 12.0}\",\"('Mn', 'O', 'Y')\",OTHERS,False\nmp-1216095,\"{'Y': 2.0, 'Mn': 3.0, 'Fe': 1.0}\",\"('Fe', 'Mn', 'Y')\",OTHERS,False\nmp-973198,{'Na': 3.0},\"('Na',)\",OTHERS,False\nmp-639904,\"{'Ce': 12.0, 'Mo': 4.0, 'O': 28.0}\",\"('Ce', 'Mo', 'O')\",OTHERS,False\nmp-1220251,\"{'Nd': 4.0, 'Mn': 1.0, 'Ni': 3.0, 'O': 12.0}\",\"('Mn', 'Nd', 'Ni', 'O')\",OTHERS,False\nmp-1219193,\"{'Si': 1.0, 'Ni': 6.0, 'Ge': 1.0}\",\"('Ge', 'Ni', 'Si')\",OTHERS,False\nmp-31070,\"{'S': 18.0, 'As': 16.0}\",\"('As', 'S')\",OTHERS,False\nmp-9066,\"{'Li': 4.0, 'O': 8.0, 'Na': 2.0, 'As': 2.0}\",\"('As', 'Li', 'Na', 'O')\",OTHERS,False\nmp-9899,\"{'P': 2.0, 'Ag': 2.0, 'Ba': 2.0}\",\"('Ag', 'Ba', 'P')\",OTHERS,False\nmp-1188605,\"{'V': 10.0, 'P': 6.0}\",\"('P', 'V')\",OTHERS,False\nAl 71.5 Co 28.5,\"{'Al': 71.5, 'Co': 28.5}\",\"('Al', 'Co')\",AC,False\nmp-6651,\"{'O': 12.0, 'F': 24.0, 'K': 8.0, 'Ta': 8.0}\",\"('F', 'K', 'O', 'Ta')\",OTHERS,False\nmp-1208632,\"{'Zn': 12.0, 'N': 72.0}\",\"('N', 'Zn')\",OTHERS,False\nmp-1222245,\"{'Mn': 2.0, 'Fe': 8.0, 'Bi': 10.0, 'O': 30.0}\",\"('Bi', 'Fe', 'Mn', 'O')\",OTHERS,False\nmp-604496,\"{'Ce': 2.0, 'Si': 2.0, 'H': 2.0, 'Ru': 2.0}\",\"('Ce', 'H', 'Ru', 'Si')\",OTHERS,False\nmp-2965,\"{'Si': 2.0, 'Mn': 2.0, 'Ce': 1.0}\",\"('Ce', 'Mn', 'Si')\",OTHERS,False\nmp-1205100,\"{'Sn': 2.0, 'S': 12.0, 'N': 4.0, 'O': 42.0}\",\"('N', 'O', 'S', 'Sn')\",OTHERS,False\nmvc-9486,\"{'Ti': 8.0, 'Zn': 4.0, 'P': 8.0, 'O': 32.0}\",\"('O', 'P', 'Ti', 'Zn')\",OTHERS,False\nmp-1224432,\"{'Hf': 1.0, 'U': 3.0, 'S': 3.0}\",\"('Hf', 'S', 'U')\",OTHERS,False\nmp-1179922,\"{'Pt': 4.0, 'N': 8.0, 'O': 16.0}\",\"('N', 'O', 'Pt')\",OTHERS,False\nmp-1197024,\"{'Fe': 4.0, 'Bi': 4.0, 'Se': 12.0, 'O': 36.0}\",\"('Bi', 'Fe', 'O', 'Se')\",OTHERS,False\nmp-1029965,\"{'K': 30.0, 'Os': 14.0, 'N': 38.0}\",\"('K', 'N', 'Os')\",OTHERS,False\nmp-1226910,\"{'Cs': 1.0, 'Nb': 2.0, 'Si': 8.0, 'O': 24.0}\",\"('Cs', 'Nb', 'O', 'Si')\",OTHERS,False\nmp-1097178,\"{'Ta': 1.0, 'Si': 1.0, 'Tc': 2.0}\",\"('Si', 'Ta', 'Tc')\",OTHERS,False\nmp-18520,\"{'O': 24.0, 'P': 4.0, 'V': 4.0, 'Ba': 4.0}\",\"('Ba', 'O', 'P', 'V')\",OTHERS,False\nmp-1093946,\"{'Be': 1.0, 'Ge': 1.0, 'Ir': 2.0}\",\"('Be', 'Ge', 'Ir')\",OTHERS,False\nmp-1220311,\"{'Nd': 1.0, 'Er': 3.0, 'Fe': 34.0}\",\"('Er', 'Fe', 'Nd')\",OTHERS,False\nTa 181 Te 112,\"{'Ta': 181.0, 'Te': 112.0}\",\"('Ta', 'Te')\",AC,False\nmp-761240,\"{'Li': 4.0, 'Mn': 2.0, 'V': 2.0, 'P': 8.0, 'O': 28.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-2591,\"{'O': 4.0, 'Ti': 12.0}\",\"('O', 'Ti')\",OTHERS,False\nmp-758932,\"{'Li': 40.0, 'Fe': 8.0, 'H': 8.0, 'O': 32.0}\",\"('Fe', 'H', 'Li', 'O')\",OTHERS,False\nmp-643392,\"{'Ca': 4.0, 'H': 8.0, 'O': 8.0}\",\"('Ca', 'H', 'O')\",OTHERS,False\nmp-1245618,\"{'Ge': 4.0, 'Te': 2.0, 'N': 4.0}\",\"('Ge', 'N', 'Te')\",OTHERS,False\nmp-779534,\"{'Li': 9.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-19388,\"{'O': 8.0, 'Ni': 2.0, 'As': 2.0, 'Ba': 1.0}\",\"('As', 'Ba', 'Ni', 'O')\",OTHERS,False\nmp-715811,\"{'Fe': 12.0, 'O': 16.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-1177898,\"{'Li': 4.0, 'Mn': 2.0, 'Fe': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-765572,\"{'Co': 4.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Co', 'O')\",OTHERS,False\nmp-1216756,\"{'Tm': 2.0, 'B': 6.0, 'Rh': 9.0}\",\"('B', 'Rh', 'Tm')\",OTHERS,False\nmp-1192271,\"{'Cs': 4.0, 'U': 2.0, 'Pd': 6.0, 'S': 12.0}\",\"('Cs', 'Pd', 'S', 'U')\",OTHERS,False\nmp-770464,\"{'La': 4.0, 'Bi': 4.0, 'O': 16.0}\",\"('Bi', 'La', 'O')\",OTHERS,False\nmp-1094041,\"{'Sr': 1.0, 'Ca': 3.0, 'Mn': 4.0, 'O': 12.0}\",\"('Ca', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1096616,\"{'Mg': 1.0, 'Zr': 1.0, 'Cd': 2.0}\",\"('Cd', 'Mg', 'Zr')\",OTHERS,False\nmp-31082,\"{'Li': 4.0, 'Ge': 2.0, 'Zr': 1.0}\",\"('Ge', 'Li', 'Zr')\",OTHERS,False\nmp-752784,\"{'Mn': 8.0, 'O': 8.0, 'F': 8.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-510366,\"{'K': 12.0, 'Co': 4.0, 'O': 10.0}\",\"('Co', 'K', 'O')\",OTHERS,False\nmp-1078409,\"{'Ba': 2.0, 'La': 1.0, 'Bi': 1.0, 'O': 6.0}\",\"('Ba', 'Bi', 'La', 'O')\",OTHERS,False\nmp-849471,\"{'Li': 4.0, 'Mn': 3.0, 'Cr': 2.0, 'Fe': 3.0, 'O': 16.0}\",\"('Cr', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1222442,\"{'Li': 5.0, 'Au': 1.0, 'O': 4.0}\",\"('Au', 'Li', 'O')\",OTHERS,False\nmp-1076208,\"{'K': 20.0, 'Na': 12.0, 'Nb': 16.0, 'W': 16.0, 'O': 80.0}\",\"('K', 'Na', 'Nb', 'O', 'W')\",OTHERS,False\nmp-961681,\"{'Zr': 1.0, 'Ge': 1.0, 'Pt': 1.0}\",\"('Ge', 'Pt', 'Zr')\",OTHERS,False\nmp-1188003,\"{'Zr': 2.0, 'Tc': 1.0, 'Ru': 1.0}\",\"('Ru', 'Tc', 'Zr')\",OTHERS,False\nmp-1220432,\"{'Nd': 4.0, 'Ti': 2.0, 'Cu': 2.0, 'O': 12.0}\",\"('Cu', 'Nd', 'O', 'Ti')\",OTHERS,False\nmp-1025290,\"{'La': 2.0, 'Fe': 2.0, 'Si': 2.0, 'C': 1.0}\",\"('C', 'Fe', 'La', 'Si')\",OTHERS,False\nmp-776648,\"{'Li': 4.0, 'Fe': 6.0, 'F': 16.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-1093709,\"{'Sc': 1.0, 'Cu': 2.0, 'Ag': 1.0}\",\"('Ag', 'Cu', 'Sc')\",OTHERS,False\nmp-1074189,\"{'Mg': 8.0, 'Si': 14.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-612405,\"{'Fe': 6.0, 'O': 8.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-1188851,\"{'Ho': 10.0, 'Bi': 2.0, 'Au': 4.0}\",\"('Au', 'Bi', 'Ho')\",OTHERS,False\nmp-1096783,\"{'Ba': 8.0, 'V': 4.0, 'Fe': 4.0, 'O': 24.0}\",\"('Ba', 'Fe', 'O', 'V')\",OTHERS,False\nmp-1229004,\"{'Al': 1.0, 'Cr': 4.0, 'Cu': 1.0, 'Se': 8.0}\",\"('Al', 'Cr', 'Cu', 'Se')\",OTHERS,False\nmp-757110,\"{'Na': 6.0, 'Ni': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Na', 'Ni', 'O', 'P')\",OTHERS,False\nmvc-8188,\"{'Ca': 2.0, 'Fe': 4.0, 'O': 8.0}\",\"('Ca', 'Fe', 'O')\",OTHERS,False\nmp-1097499,\"{'Nb': 1.0, 'Cr': 2.0, 'W': 1.0}\",\"('Cr', 'Nb', 'W')\",OTHERS,False\nmp-29538,\"{'Cl': 10.0, 'Ba': 2.0, 'Gd': 2.0}\",\"('Ba', 'Cl', 'Gd')\",OTHERS,False\nmp-29759,\"{'V': 4.0, 'Xe': 8.0, 'F': 68.0}\",\"('F', 'V', 'Xe')\",OTHERS,False\nmp-560071,\"{'F': 6.0, 'K': 1.0, 'Co': 1.0, 'Rb': 2.0}\",\"('Co', 'F', 'K', 'Rb')\",OTHERS,False\nmp-1189962,\"{'Pr': 4.0, 'Sc': 4.0, 'S': 12.0}\",\"('Pr', 'S', 'Sc')\",OTHERS,False\nmvc-16379,\"{'Y': 4.0, 'Co': 12.0, 'O': 24.0}\",\"('Co', 'O', 'Y')\",OTHERS,False\nmp-1211841,\"{'K': 2.0, 'H': 16.0, 'W': 2.0, 'N': 4.0, 'F': 12.0}\",\"('F', 'H', 'K', 'N', 'W')\",OTHERS,False\nmp-568922,\"{'Ce': 14.0, 'C': 6.0, 'I': 20.0}\",\"('C', 'Ce', 'I')\",OTHERS,False\nmp-768144,\"{'Na': 4.0, 'Sb': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Na', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1039728,\"{'Na': 1.0, 'Hf': 1.0, 'Mg': 30.0, 'O': 31.0}\",\"('Hf', 'Mg', 'Na', 'O')\",OTHERS,False\nmp-11718,\"{'F': 1.0, 'Rb': 1.0}\",\"('F', 'Rb')\",OTHERS,False\nmp-1228334,\"{'Ba': 4.0, 'Eu': 2.0, 'Cu': 6.0, 'O': 13.0}\",\"('Ba', 'Cu', 'Eu', 'O')\",OTHERS,False\nmp-675423,\"{'Sr': 3.0, 'Cr': 2.0, 'O': 7.0}\",\"('Cr', 'O', 'Sr')\",OTHERS,False\nmp-1178173,\"{'Ho': 2.0, 'Te': 1.0, 'O': 2.0}\",\"('Ho', 'O', 'Te')\",OTHERS,False\nmp-9964,\"{'N': 1.0, 'Ti': 3.0, 'Tl': 1.0}\",\"('N', 'Ti', 'Tl')\",OTHERS,False\nmp-2824,\"{'Al': 4.0, 'Pd': 8.0}\",\"('Al', 'Pd')\",OTHERS,False\nmp-1227522,\"{'Ca': 12.0, 'Al': 2.0, 'Cr': 6.0, 'Si': 12.0, 'O': 48.0}\",\"('Al', 'Ca', 'Cr', 'O', 'Si')\",OTHERS,False\nmp-1215420,\"{'Zr': 3.0, 'Ta': 1.0, 'Fe': 8.0}\",\"('Fe', 'Ta', 'Zr')\",OTHERS,False\nmp-1184147,\"{'Cu': 2.0, 'Ge': 6.0}\",\"('Cu', 'Ge')\",OTHERS,False\nmp-773043,\"{'Li': 8.0, 'Fe': 16.0, 'O': 32.0}\",\"('Fe', 'Li', 'O')\",OTHERS,False\nmp-1176270,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-976008,\"{'Nd': 1.0, 'Tm': 1.0, 'Mg': 2.0}\",\"('Mg', 'Nd', 'Tm')\",OTHERS,False\nmp-1218804,\"{'Sr': 4.0, 'In': 17.0, 'Au': 15.0}\",\"('Au', 'In', 'Sr')\",OTHERS,False\nmp-1020620,\"{'Rb': 5.0, 'Li': 6.0, 'B': 11.0, 'O': 22.0}\",\"('B', 'Li', 'O', 'Rb')\",OTHERS,False\nmp-23915,\"{'H': 4.0, 'O': 52.0, 'Al': 12.0, 'Si': 12.0, 'Ca': 8.0}\",\"('Al', 'Ca', 'H', 'O', 'Si')\",OTHERS,False\nmp-23414,\"{'N': 2.0, 'Cl': 12.0, 'Sc': 8.0}\",\"('Cl', 'N', 'Sc')\",OTHERS,False\nmp-1192042,\"{'Tm': 6.0, 'Al': 2.0, 'Ni': 16.0}\",\"('Al', 'Ni', 'Tm')\",OTHERS,False\nmp-532537,\"{'Ag': 4.0, 'Ca': 8.0, 'Mn': 8.0, 'O': 48.0, 'V': 12.0}\",\"('Ag', 'Ca', 'Mn', 'O', 'V')\",OTHERS,False\nmp-1175273,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1179346,\"{'Te': 2.0, 'C': 8.0, 'S': 8.0, 'N': 16.0, 'F': 8.0}\",\"('C', 'F', 'N', 'S', 'Te')\",OTHERS,False\nmp-1187253,\"{'Ta': 1.0, 'Ti': 3.0}\",\"('Ta', 'Ti')\",OTHERS,False\nmp-1221943,\"{'Mg': 1.0, 'Ge': 1.0, 'P': 2.0}\",\"('Ge', 'Mg', 'P')\",OTHERS,False\nmp-720985,\"{'Ca': 1.0, 'Er': 15.0, 'Si': 8.0, 'Se': 11.0, 'Cl': 1.0, 'O': 28.0}\",\"('Ca', 'Cl', 'Er', 'O', 'Se', 'Si')\",OTHERS,False\nmp-1192759,\"{'Ir': 3.0, 'N': 10.0, 'Cl': 10.0}\",\"('Cl', 'Ir', 'N')\",OTHERS,False\nmp-1213589,\"{'Eu': 9.0, 'Ni': 26.0, 'P': 12.0}\",\"('Eu', 'Ni', 'P')\",OTHERS,False\nmp-556748,\"{'Ca': 2.0, 'Cr': 2.0, 'F': 10.0}\",\"('Ca', 'Cr', 'F')\",OTHERS,False\nmp-29974,\"{'Li': 28.0, 'Ge': 32.0, 'Rb': 4.0}\",\"('Ge', 'Li', 'Rb')\",OTHERS,False\nmp-505131,\"{'Li': 2.0, 'O': 8.0, 'V': 2.0, 'Cu': 2.0}\",\"('Cu', 'Li', 'O', 'V')\",OTHERS,False\nmp-31214,\"{'P': 8.0, 'Ti': 24.0}\",\"('P', 'Ti')\",OTHERS,False\nmp-1093948,\"{'Sr': 1.0, 'La': 1.0, 'Ag': 2.0}\",\"('Ag', 'La', 'Sr')\",OTHERS,False\nmp-1228713,\"{'Al': 4.0, 'Ni': 15.0}\",\"('Al', 'Ni')\",OTHERS,False\nmp-1208398,\"{'Tl': 8.0, 'Se': 12.0, 'O': 48.0}\",\"('O', 'Se', 'Tl')\",OTHERS,False\nmp-765857,\"{'Li': 3.0, 'Cr': 3.0, 'Si': 6.0, 'O': 18.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,False\nmp-773065,\"{'Li': 5.0, 'V': 5.0, 'Cr': 2.0, 'O': 12.0}\",\"('Cr', 'Li', 'O', 'V')\",OTHERS,False\nmp-773108,\"{'Li': 10.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-753626,\"{'Li': 4.0, 'Nd': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Li', 'Nd', 'O', 'P')\",OTHERS,False\nmp-570806,\"{'Mg': 60.0, 'Al': 48.0, 'Ag': 38.0}\",\"('Ag', 'Al', 'Mg')\",OTHERS,False\nmvc-4994,\"{'Ca': 4.0, 'Mo': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Ca', 'Mo', 'O', 'W')\",OTHERS,False\nmp-1219106,\"{'Sm': 1.0, 'Y': 1.0, 'Mn': 4.0, 'Ge': 4.0}\",\"('Ge', 'Mn', 'Sm', 'Y')\",OTHERS,False\nmp-1226593,\"{'Ce': 2.0, 'Y': 2.0, 'Ga': 4.0, 'Pd': 8.0}\",\"('Ce', 'Ga', 'Pd', 'Y')\",OTHERS,False\nmp-19034,\"{'O': 16.0, 'Mg': 6.0, 'V': 4.0}\",\"('Mg', 'O', 'V')\",OTHERS,False\nmp-1186495,\"{'Pm': 3.0, 'Er': 1.0}\",\"('Er', 'Pm')\",OTHERS,False\nmp-7928,\"{'S': 2.0, 'K': 2.0, 'Pt': 1.0}\",\"('K', 'Pt', 'S')\",OTHERS,False\nmp-1201038,\"{'K': 4.0, 'Na': 4.0, 'Al': 24.0, 'Si': 24.0, 'H': 16.0, 'O': 96.0}\",\"('Al', 'H', 'K', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1180271,\"{'Mg': 1.0, 'O': 2.0}\",\"('Mg', 'O')\",OTHERS,False\nmp-18378,\"{'Al': 4.0, 'K': 12.0, 'Te': 12.0}\",\"('Al', 'K', 'Te')\",OTHERS,False\nmp-21634,\"{'Na': 8.0, 'W': 8.0, 'O': 28.0}\",\"('Na', 'O', 'W')\",OTHERS,False\nmp-1221985,\"{'Mg': 1.0, 'Cd': 1.0, 'Ag': 2.0}\",\"('Ag', 'Cd', 'Mg')\",OTHERS,False\nmp-762116,\"{'Li': 4.0, 'Cu': 16.0, 'P': 12.0, 'O': 48.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nCd 65 Mg 20 Y 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Y': 15.0}\",\"('Cd', 'Mg', 'Y')\",QC,False\nmp-772390,\"{'Li': 4.0, 'Al': 4.0, 'Fe': 4.0, 'O': 16.0}\",\"('Al', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-864953,\"{'Mn': 1.0, 'V': 2.0, 'Cr': 1.0}\",\"('Cr', 'Mn', 'V')\",OTHERS,False\nmp-1177443,\"{'Li': 4.0, 'Fe': 2.0, 'Cu': 3.0, 'Sn': 3.0, 'O': 16.0}\",\"('Cu', 'Fe', 'Li', 'O', 'Sn')\",OTHERS,False\nmp-1211512,\"{'K': 4.0, 'Y': 2.0, 'Sb': 2.0, 'O': 14.0}\",\"('K', 'O', 'Sb', 'Y')\",OTHERS,False\nmp-1936,\"{'As': 2.0, 'Ta': 2.0}\",\"('As', 'Ta')\",OTHERS,False\nmp-1187199,\"{'Ta': 3.0, 'Bi': 1.0}\",\"('Bi', 'Ta')\",OTHERS,False\nmp-1245498,\"{'Sr': 8.0, 'Ir': 2.0, 'N': 8.0}\",\"('Ir', 'N', 'Sr')\",OTHERS,False\nmp-570798,\"{'Er': 3.0, 'P': 6.0, 'Pd': 20.0}\",\"('Er', 'P', 'Pd')\",OTHERS,False\nmp-1247357,\"{'Y': 8.0, 'In': 4.0, 'N': 12.0}\",\"('In', 'N', 'Y')\",OTHERS,False\nmp-867291,\"{'Tb': 2.0, 'Ir': 1.0, 'Ru': 1.0}\",\"('Ir', 'Ru', 'Tb')\",OTHERS,False\nmp-1245767,\"{'Ca': 8.0, 'Ir': 4.0, 'N': 12.0}\",\"('Ca', 'Ir', 'N')\",OTHERS,False\nmp-22643,\"{'Co': 2.0, 'Ge': 4.0, 'Tb': 3.0}\",\"('Co', 'Ge', 'Tb')\",OTHERS,False\nmp-1205556,\"{'Ba': 2.0, 'Nd': 1.0, 'Re': 1.0, 'O': 6.0}\",\"('Ba', 'Nd', 'O', 'Re')\",OTHERS,False\nmp-1080127,\"{'Yb': 3.0, 'Cd': 3.0, 'Pb': 3.0}\",\"('Cd', 'Pb', 'Yb')\",OTHERS,False\nAu 61.2 Sn 23.9 Dy 15.2,\"{'Au': 61.2, 'Sn': 23.9, 'Dy': 15.2}\",\"('Au', 'Dy', 'Sn')\",AC,False\nmp-780575,\"{'Na': 8.0, 'Fe': 4.0, 'Si': 24.0, 'O': 60.0}\",\"('Fe', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1832,\"{'La': 1.0, 'Pt': 5.0}\",\"('La', 'Pt')\",OTHERS,False\nmp-542501,\"{'U': 3.0, 'Te': 2.0, 'Rb': 2.0, 'O': 14.0}\",\"('O', 'Rb', 'Te', 'U')\",OTHERS,False\nmp-1186401,\"{'Pa': 1.0, 'Si': 1.0, 'O': 3.0}\",\"('O', 'Pa', 'Si')\",OTHERS,False\nmp-505478,\"{'Na': 2.0, 'Fe': 2.0, 'B': 2.0, 'P': 4.0, 'O': 20.0, 'H': 6.0}\",\"('B', 'Fe', 'H', 'Na', 'O', 'P')\",OTHERS,False\nmp-1025510,\"{'Fe': 1.0, 'Cu': 2.0, 'Si': 1.0, 'Se': 4.0}\",\"('Cu', 'Fe', 'Se', 'Si')\",OTHERS,False\nmp-767157,\"{'Ti': 16.0, 'Cu': 1.0, 'S': 32.0}\",\"('Cu', 'S', 'Ti')\",OTHERS,False\nmp-1246884,\"{'Y': 3.0, 'Mg': 2.0, 'V': 1.0, 'S': 8.0}\",\"('Mg', 'S', 'V', 'Y')\",OTHERS,False\nmp-1469,\"{'P': 16.0, 'S': 12.0}\",\"('P', 'S')\",OTHERS,False\nmp-11714,\"{'C': 4.0, 'Si': 4.0}\",\"('C', 'Si')\",OTHERS,False\nmp-1198442,\"{'Cu': 8.0, 'P': 4.0, 'C': 8.0, 'S': 4.0, 'O': 52.0}\",\"('C', 'Cu', 'O', 'P', 'S')\",OTHERS,False\nmp-766048,\"{'Li': 8.0, 'V': 4.0, 'Si': 2.0, 'Ge': 2.0, 'O': 20.0}\",\"('Ge', 'Li', 'O', 'Si', 'V')\",OTHERS,False\nmp-1094475,\"{'Mg': 6.0, 'Zn': 6.0}\",\"('Mg', 'Zn')\",OTHERS,False\nmp-541868,\"{'Te': 6.0, 'Mo': 2.0, 'Cl': 32.0}\",\"('Cl', 'Mo', 'Te')\",OTHERS,False\nmp-1094493,\"{'Mg': 6.0, 'Zn': 6.0}\",\"('Mg', 'Zn')\",OTHERS,False\nmp-975738,\"{'Pr': 2.0, 'B': 4.0, 'Os': 4.0}\",\"('B', 'Os', 'Pr')\",OTHERS,False\nmp-1186483,\"{'Pm': 4.0, 'Mg': 2.0}\",\"('Mg', 'Pm')\",OTHERS,False\nmp-1176410,\"{'Na': 8.0, 'Ni': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Na', 'Ni', 'O', 'P')\",OTHERS,False\nmp-690644,\"{'Tl': 1.0, 'In': 1.0, 'S': 2.0}\",\"('In', 'S', 'Tl')\",OTHERS,False\nmp-752502,\"{'Li': 7.0, 'Cr': 3.0, 'Si': 2.0, 'O': 12.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,False\nmp-30170,\"{'Ge': 40.0, 'Pd': 6.0, 'Ba': 8.0}\",\"('Ba', 'Ge', 'Pd')\",OTHERS,False\nmp-1203462,\"{'Na': 4.0, 'Ho': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Ho', 'Na', 'O', 'P')\",OTHERS,False\nmp-1175073,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-14222,\"{'O': 4.0, 'Ga': 2.0, 'Tl': 2.0}\",\"('Ga', 'O', 'Tl')\",OTHERS,False\nmp-583476,\"{'Nb': 28.0, 'S': 8.0, 'I': 76.0}\",\"('I', 'Nb', 'S')\",OTHERS,False\nmp-35555,\"{'F': 1.0, 'La': 1.0, 'O': 1.0}\",\"('F', 'La', 'O')\",OTHERS,False\nmp-1078621,\"{'Tl': 2.0, 'In': 2.0, 'S': 4.0}\",\"('In', 'S', 'Tl')\",OTHERS,False\nmp-1215536,\"{'Zr': 4.0, 'Si': 2.0, 'Mo': 6.0}\",\"('Mo', 'Si', 'Zr')\",OTHERS,False\nmp-19981,{'Gd': 4.0},\"('Gd',)\",OTHERS,False\nmp-9835,\"{'Co': 2.0, 'Sb': 4.0}\",\"('Co', 'Sb')\",OTHERS,False\nmp-1209369,\"{'Rb': 5.0, 'Dy': 3.0, 'I': 12.0}\",\"('Dy', 'I', 'Rb')\",OTHERS,False\nmp-16690,\"{'P': 8.0, 'S': 28.0, 'K': 8.0, 'Nd': 4.0}\",\"('K', 'Nd', 'P', 'S')\",OTHERS,False\nmp-1096411,\"{'Zr': 2.0, 'In': 1.0, 'Tc': 1.0}\",\"('In', 'Tc', 'Zr')\",OTHERS,False\nmp-570883,\"{'Ca': 42.0, 'Zn': 72.0, 'Ni': 4.0}\",\"('Ca', 'Ni', 'Zn')\",OTHERS,False\nmp-16496,\"{'Al': 2.0, 'Cu': 4.0, 'Re': 4.0}\",\"('Al', 'Cu', 'Re')\",OTHERS,False\nmp-1210367,\"{'Na': 6.0, 'P': 6.0, 'N': 6.0, 'O': 14.0}\",\"('N', 'Na', 'O', 'P')\",OTHERS,False\nmp-1113333,\"{'Tb': 1.0, 'Cs': 2.0, 'Cu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Cu', 'Tb')\",OTHERS,False\nmp-675073,\"{'Na': 8.0, 'Pt': 2.0, 'O': 8.0}\",\"('Na', 'O', 'Pt')\",OTHERS,False\nmp-1245354,\"{'Li': 56.0, 'Cr': 8.0, 'N': 32.0}\",\"('Cr', 'Li', 'N')\",OTHERS,False\nmp-23202,\"{'In': 2.0, 'I': 2.0}\",\"('I', 'In')\",OTHERS,False\nmp-753471,\"{'Li': 4.0, 'Cu': 4.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Cu', 'Li', 'O')\",OTHERS,False\nmp-29216,\"{'Cl': 8.0, 'Cs': 4.0, 'Pt': 2.0}\",\"('Cl', 'Cs', 'Pt')\",OTHERS,False\nmp-1207427,\"{'Zr': 18.0, 'Mo': 8.0, 'O': 6.0}\",\"('Mo', 'O', 'Zr')\",OTHERS,False\nmp-1077262,\"{'Tb': 1.0, 'Cu': 5.0}\",\"('Cu', 'Tb')\",OTHERS,False\nmp-1024977,\"{'Yb': 1.0, 'Ni': 4.0, 'Au': 1.0}\",\"('Au', 'Ni', 'Yb')\",OTHERS,False\nmp-778047,\"{'Na': 32.0, 'Ni': 8.0, 'O': 32.0}\",\"('Na', 'Ni', 'O')\",OTHERS,False\nmp-1222759,\"{'La': 1.0, 'U': 3.0, 'C': 8.0}\",\"('C', 'La', 'U')\",OTHERS,False\nmp-1195560,\"{'C': 24.0, 'F': 40.0}\",\"('C', 'F')\",OTHERS,False\nmp-865778,\"{'Lu': 10.0, 'Rh': 6.0}\",\"('Lu', 'Rh')\",OTHERS,False\nmp-28313,\"{'Nd': 4.0, 'Cl': 8.0}\",\"('Cl', 'Nd')\",OTHERS,False\nmp-1032034,\"{'Sr': 1.0, 'Mg': 6.0, 'Zn': 1.0, 'O': 8.0}\",\"('Mg', 'O', 'Sr', 'Zn')\",OTHERS,False\nmp-542606,{'Pu': 17.0},\"('Pu',)\",OTHERS,False\nmp-1186636,\"{'Pm': 2.0, 'Rh': 6.0}\",\"('Pm', 'Rh')\",OTHERS,False\nmp-995196,\"{'C': 2.0, 'O': 6.0}\",\"('C', 'O')\",OTHERS,False\nmp-4651,\"{'O': 6.0, 'Ti': 2.0, 'Sr': 2.0}\",\"('O', 'Sr', 'Ti')\",OTHERS,False\nmp-771566,\"{'Lu': 8.0, 'Te': 4.0, 'O': 24.0}\",\"('Lu', 'O', 'Te')\",OTHERS,False\nmp-1228701,\"{'Al': 4.0, 'Ge': 2.0, 'W': 3.0}\",\"('Al', 'Ge', 'W')\",OTHERS,False\nmp-753560,\"{'Li': 2.0, 'V': 2.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('H', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1226828,\"{'Ce': 2.0, 'Pd': 3.0, 'Rh': 3.0}\",\"('Ce', 'Pd', 'Rh')\",OTHERS,False\nmp-27080,\"{'Li': 4.0, 'Ni': 12.0, 'P': 16.0, 'O': 60.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-8948,\"{'As': 2.0, 'Pd': 2.0, 'Ce': 2.0}\",\"('As', 'Ce', 'Pd')\",OTHERS,False\nmp-1188397,\"{'Pr': 4.0, 'Mg': 2.0, 'Ir': 2.0, 'O': 12.0}\",\"('Ir', 'Mg', 'O', 'Pr')\",OTHERS,False\nmp-861906,\"{'Ba': 1.0, 'Na': 2.0, 'Mg': 1.0, 'P': 2.0, 'O': 8.0}\",\"('Ba', 'Mg', 'Na', 'O', 'P')\",OTHERS,False\nmp-1232293,\"{'Mg': 1.0, 'Al': 2.0, 'Sn': 2.0}\",\"('Al', 'Mg', 'Sn')\",OTHERS,False\nmp-1208510,\"{'Sr': 2.0, 'Y': 1.0, 'Fe': 3.0, 'O': 8.0}\",\"('Fe', 'O', 'Sr', 'Y')\",OTHERS,False\nmp-541075,\"{'Rb': 4.0, 'Mo': 6.0, 'O': 20.0}\",\"('Mo', 'O', 'Rb')\",OTHERS,False\nmp-1210000,\"{'Nd': 6.0, 'Cd': 4.0, 'Si': 6.0, 'O': 26.0}\",\"('Cd', 'Nd', 'O', 'Si')\",OTHERS,False\nmp-1019740,\"{'Ga': 1.0, 'B': 3.0, 'N': 4.0}\",\"('B', 'Ga', 'N')\",OTHERS,False\nmp-1897,\"{'Rh': 4.0, 'Pu': 2.0}\",\"('Pu', 'Rh')\",OTHERS,False\nmp-683598,\"{'P': 4.0, 'W': 4.0, 'C': 20.0, 'Br': 12.0, 'O': 20.0}\",\"('Br', 'C', 'O', 'P', 'W')\",OTHERS,False\nmp-1216917,\"{'Ti': 1.0, 'In': 1.0, 'Ni': 2.0}\",\"('In', 'Ni', 'Ti')\",OTHERS,False\nmp-703350,\"{'La': 4.0, 'Ge': 6.0, 'O': 18.0}\",\"('Ge', 'La', 'O')\",OTHERS,False\nmp-504891,\"{'La': 6.0, 'Ga': 2.0, 'Mn': 2.0, 'S': 14.0}\",\"('Ga', 'La', 'Mn', 'S')\",OTHERS,False\nmp-1185469,\"{'Li': 1.0, 'Yb': 3.0}\",\"('Li', 'Yb')\",OTHERS,False\nmp-1076679,\"{'La': 7.0, 'Sm': 1.0, 'V': 7.0, 'Cr': 1.0, 'O': 24.0}\",\"('Cr', 'La', 'O', 'Sm', 'V')\",OTHERS,False\nmp-1194017,\"{'Th': 4.0, 'P': 4.0, 'O': 20.0}\",\"('O', 'P', 'Th')\",OTHERS,False\nmp-1652,\"{'Zn': 2.0, 'Pd': 2.0}\",\"('Pd', 'Zn')\",OTHERS,False\nmp-1190316,\"{'Yb': 1.0, 'Fe': 4.0, 'Cu': 3.0, 'O': 12.0}\",\"('Cu', 'Fe', 'O', 'Yb')\",OTHERS,False\nmp-542333,\"{'S': 5.0, 'Cu': 9.0}\",\"('Cu', 'S')\",OTHERS,False\nmp-604537,\"{'Mn': 10.0, 'Ga': 10.0, 'Ni': 20.0}\",\"('Ga', 'Mn', 'Ni')\",OTHERS,False\nmp-1080537,\"{'K': 2.0, 'Na': 1.0, 'V': 1.0, 'F': 6.0}\",\"('F', 'K', 'Na', 'V')\",OTHERS,False\nmp-1226956,\"{'Cd': 10.0, 'P': 6.0, 'O': 26.0}\",\"('Cd', 'O', 'P')\",OTHERS,False\nmp-1105011,\"{'W': 2.0, 'S': 4.0, 'N': 4.0, 'O': 4.0}\",\"('N', 'O', 'S', 'W')\",OTHERS,False\nmp-1074542,\"{'Mg': 16.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-556523,\"{'La': 2.0, 'Pb': 12.0, 'Cl': 2.0, 'O': 14.0}\",\"('Cl', 'La', 'O', 'Pb')\",OTHERS,False\nmp-1097575,\"{'Sc': 2.0, 'Al': 1.0, 'Au': 1.0}\",\"('Al', 'Au', 'Sc')\",OTHERS,False\nmp-505108,\"{'Fe': 1.0, 'Sn': 1.0, 'F': 6.0, 'O': 6.0, 'H': 12.0}\",\"('F', 'Fe', 'H', 'O', 'Sn')\",OTHERS,False\nmp-558356,\"{'Na': 4.0, 'Cr': 2.0, 'Ni': 2.0, 'F': 14.0}\",\"('Cr', 'F', 'Na', 'Ni')\",OTHERS,False\nmp-1154732,\"{'Ca': 4.0, 'Si': 16.0, 'W': 4.0, 'O': 40.0}\",\"('Ca', 'O', 'Si', 'W')\",OTHERS,False\nmp-640715,\"{'Yb': 16.0, 'Rb': 24.0, 'P': 24.0, 'O': 96.0}\",\"('O', 'P', 'Rb', 'Yb')\",OTHERS,False\nmp-1227967,\"{'Ba': 1.0, 'Ga': 3.0, 'Sn': 1.0}\",\"('Ba', 'Ga', 'Sn')\",OTHERS,False\nmp-772830,\"{'Li': 4.0, 'V': 2.0, 'Si': 1.0, 'Ge': 1.0, 'O': 10.0}\",\"('Ge', 'Li', 'O', 'Si', 'V')\",OTHERS,False\nmp-8675,\"{'Pd': 4.0, 'Hg': 4.0}\",\"('Hg', 'Pd')\",OTHERS,False\nmp-1096979,\"{'Na': 24.0, 'V': 24.0, 'Zn': 24.0, 'O': 96.0}\",\"('Na', 'O', 'V', 'Zn')\",OTHERS,False\nmp-1211010,\"{'Ni': 2.0, 'P': 2.0, 'N': 2.0, 'O': 20.0}\",\"('N', 'Ni', 'O', 'P')\",OTHERS,False\nmp-18820,\"{'O': 7.0, 'Fe': 2.0, 'Sr': 3.0}\",\"('Fe', 'O', 'Sr')\",OTHERS,False\nmp-759523,\"{'Li': 4.0, 'V': 2.0, 'Fe': 2.0, 'P': 8.0, 'O': 28.0}\",\"('Fe', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-20979,\"{'Mg': 3.0, 'In': 3.0, 'Tm': 3.0}\",\"('In', 'Mg', 'Tm')\",OTHERS,False\nmp-1245514,\"{'Sb': 2.0, 'C': 3.0, 'N': 6.0}\",\"('C', 'N', 'Sb')\",OTHERS,False\nmp-775023,\"{'Li': 2.0, 'Fe': 3.0, 'Sn': 1.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Sn')\",OTHERS,False\nmp-1244965,\"{'Si': 34.0, 'O': 68.0}\",\"('O', 'Si')\",OTHERS,False\nmp-849952,\"{'Li': 2.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1183938,\"{'Cs': 1.0, 'K': 2.0, 'As': 1.0}\",\"('As', 'Cs', 'K')\",OTHERS,False\nmp-1239391,\"{'Zn': 4.0, 'Co': 8.0, 'Cu': 8.0, 'O': 32.0}\",\"('Co', 'Cu', 'O', 'Zn')\",OTHERS,False\nmp-1178487,\"{'Bi': 10.0, 'O': 14.0, 'F': 2.0}\",\"('Bi', 'F', 'O')\",OTHERS,False\nmp-1246778,\"{'Li': 4.0, 'Cd': 4.0, 'N': 4.0}\",\"('Cd', 'Li', 'N')\",OTHERS,False\nmp-976380,\"{'Nd': 2.0, 'Ni': 4.0, 'Sb': 4.0}\",\"('Nd', 'Ni', 'Sb')\",OTHERS,False\nmp-776246,\"{'Zr': 16.0, 'N': 16.0, 'O': 8.0}\",\"('N', 'O', 'Zr')\",OTHERS,False\nmp-33569,\"{'La': 4.0, 'Se': 8.0, 'Sr': 2.0}\",\"('La', 'Se', 'Sr')\",OTHERS,False\nmp-1213705,\"{'Cs': 4.0, 'Na': 2.0, 'Ga': 2.0, 'P': 4.0}\",\"('Cs', 'Ga', 'Na', 'P')\",OTHERS,False\nmp-23060,\"{'I': 6.0, 'Cs': 2.0, 'Pt': 1.0}\",\"('Cs', 'I', 'Pt')\",OTHERS,False\nmp-1180066,\"{'Ni': 1.0, 'I': 2.0, 'O': 6.0}\",\"('I', 'Ni', 'O')\",OTHERS,False\nmp-744841,\"{'Si': 2.0, 'Mo': 24.0, 'H': 48.0, 'C': 12.0, 'N': 6.0, 'O': 80.0}\",\"('C', 'H', 'Mo', 'N', 'O', 'Si')\",OTHERS,False\nmp-1078818,\"{'Mg': 4.0, 'Ni': 2.0, 'H': 4.0}\",\"('H', 'Mg', 'Ni')\",OTHERS,False\nmp-1184504,\"{'Eu': 6.0, 'W': 2.0}\",\"('Eu', 'W')\",OTHERS,False\nmp-849361,\"{'Li': 4.0, 'V': 4.0, 'F': 20.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1212011,\"{'In': 4.0, 'Sb': 4.0, 'Se': 12.0}\",\"('In', 'Sb', 'Se')\",OTHERS,False\nmp-1384,\"{'La': 1.0, 'Ir': 5.0}\",\"('Ir', 'La')\",OTHERS,False\nmp-773918,\"{'Zn': 1.0, 'Bi': 38.0, 'O': 60.0}\",\"('Bi', 'O', 'Zn')\",OTHERS,False\nmp-759435,\"{'Li': 4.0, 'Cu': 4.0, 'P': 12.0, 'O': 36.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-1220982,\"{'Na': 1.0, 'Li': 1.0, 'Ga': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Ga', 'Li', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1225162,\"{'Eu': 1.0, 'Si': 3.0, 'Ni': 1.0}\",\"('Eu', 'Ni', 'Si')\",OTHERS,False\nmp-1205433,\"{'Dy': 2.0, 'In': 8.0, 'Pt': 8.0}\",\"('Dy', 'In', 'Pt')\",OTHERS,False\nmp-752904,\"{'Li': 3.0, 'Fe': 3.0, 'Si': 1.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-758846,\"{'Li': 3.0, 'Mn': 2.0, 'Ni': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'Ni', 'O')\",OTHERS,False\nmp-6805,\"{'O': 48.0, 'P': 12.0, 'K': 12.0, 'Ga': 8.0}\",\"('Ga', 'K', 'O', 'P')\",OTHERS,False\nmp-1185485,\"{'Lu': 1.0, 'Al': 1.0, 'O': 3.0}\",\"('Al', 'Lu', 'O')\",OTHERS,False\nmp-1184799,\"{'In': 1.0, 'Os': 1.0, 'O': 3.0}\",\"('In', 'O', 'Os')\",OTHERS,False\nmp-1186244,\"{'Pm': 1.0, 'Nd': 3.0}\",\"('Nd', 'Pm')\",OTHERS,False\nmp-768042,\"{'Na': 8.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Na', 'O', 'P')\",OTHERS,False\nmp-1225429,\"{'Eu': 2.0, 'Al': 3.0, 'Ag': 1.0}\",\"('Ag', 'Al', 'Eu')\",OTHERS,False\nmp-1187603,\"{'Tm': 1.0, 'Sb': 1.0, 'Rh': 2.0}\",\"('Rh', 'Sb', 'Tm')\",OTHERS,False\nmp-1190160,\"{'K': 4.0, 'Se': 4.0, 'O': 14.0}\",\"('K', 'O', 'Se')\",OTHERS,False\nmp-1219871,\"{'Pd': 4.0, 'Se': 4.0, 'S': 4.0}\",\"('Pd', 'S', 'Se')\",OTHERS,False\nmp-1078780,\"{'Zn': 1.0, 'Cd': 3.0, 'S': 4.0}\",\"('Cd', 'S', 'Zn')\",OTHERS,False\nmp-984454,\"{'K': 1.0, 'Tl': 1.0, 'O': 3.0}\",\"('K', 'O', 'Tl')\",OTHERS,False\nmp-1201660,\"{'Ho': 10.0, 'Ge': 20.0, 'Os': 8.0}\",\"('Ge', 'Ho', 'Os')\",OTHERS,False\nmp-15963,\"{'P': 3.0, 'Ru': 3.0, 'Hf': 3.0}\",\"('Hf', 'P', 'Ru')\",OTHERS,False\nmp-1096584,\"{'Li': 1.0, 'Ga': 2.0, 'Tc': 1.0}\",\"('Ga', 'Li', 'Tc')\",OTHERS,False\nmp-696490,\"{'Ca': 8.0, 'H': 8.0, 'S': 8.0, 'O': 28.0}\",\"('Ca', 'H', 'O', 'S')\",OTHERS,False\nmp-1238814,\"{'H': 4.0, 'N': 1.0}\",\"('H', 'N')\",OTHERS,False\nmp-1246350,\"{'Sr': 8.0, 'V': 4.0, 'N': 8.0}\",\"('N', 'Sr', 'V')\",OTHERS,False\nmp-11143,\"{'Si': 8.0, 'Cu': 18.0, 'Ba': 2.0}\",\"('Ba', 'Cu', 'Si')\",OTHERS,False\nmp-631358,\"{'Sr': 1.0, 'Ta': 2.0, 'Mn': 1.0}\",\"('Mn', 'Sr', 'Ta')\",OTHERS,False\nmp-1221508,\"{'Na': 11.0, 'Ti': 1.0, 'Nb': 2.0, 'Si': 4.0, 'P': 2.0, 'O': 25.0, 'F': 1.0}\",\"('F', 'Na', 'Nb', 'O', 'P', 'Si', 'Ti')\",OTHERS,False\nmp-1215195,\"{'Zr': 1.0, 'U': 1.0, 'C': 2.0}\",\"('C', 'U', 'Zr')\",OTHERS,False\nmp-1224102,\"{'In': 2.0, 'Cu': 2.0, 'Sn': 2.0, 'S': 8.0}\",\"('Cu', 'In', 'S', 'Sn')\",OTHERS,False\nmp-1217816,\"{'Ta': 1.0, 'V': 1.0, 'H': 4.0}\",\"('H', 'Ta', 'V')\",OTHERS,False\nmp-676020,\"{'Ba': 2.0, 'C': 2.0, 'O': 6.0}\",\"('Ba', 'C', 'O')\",OTHERS,False\nmp-764781,\"{'Li': 3.0, 'Co': 4.0, 'O': 8.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-561352,\"{'Ba': 2.0, 'Na': 4.0, 'Ti': 4.0, 'Si': 8.0, 'O': 28.0}\",\"('Ba', 'Na', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-753245,\"{'Li': 2.0, 'Mn': 4.0, 'O': 6.0, 'F': 2.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-20701,\"{'K': 2.0, 'Ba': 1.0, 'Co': 1.0, 'N': 6.0, 'O': 12.0}\",\"('Ba', 'Co', 'K', 'N', 'O')\",OTHERS,False\nmp-16509,\"{'Al': 8.0, 'Ni': 2.0, 'Lu': 2.0}\",\"('Al', 'Lu', 'Ni')\",OTHERS,False\nmp-1800,\"{'C': 12.0, 'Nd': 8.0}\",\"('C', 'Nd')\",OTHERS,False\nmp-1221192,\"{'Na': 8.0, 'Li': 2.0, 'Nb': 10.0, 'O': 30.0}\",\"('Li', 'Na', 'Nb', 'O')\",OTHERS,False\nmp-694915,\"{'Ca': 2.0, 'La': 2.0, 'Mn': 2.0, 'Sn': 2.0, 'O': 12.0}\",\"('Ca', 'La', 'Mn', 'O', 'Sn')\",OTHERS,False\nmp-753828,\"{'Li': 4.0, 'Co': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'O', 'Si')\",OTHERS,False\nmp-759326,\"{'Li': 6.0, 'Mn': 11.0, 'O': 2.0, 'F': 24.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1025261,\"{'Mg': 1.0, 'P': 1.0, 'Pd': 5.0}\",\"('Mg', 'P', 'Pd')\",OTHERS,False\nmp-1036235,\"{'Mg': 14.0, 'Mn': 1.0, 'Co': 1.0, 'O': 16.0}\",\"('Co', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-865554,\"{'Mn': 2.0, 'V': 1.0, 'Ge': 1.0}\",\"('Ge', 'Mn', 'V')\",OTHERS,False\nmp-1175727,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-770910,\"{'Li': 12.0, 'Mn': 4.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1198784,\"{'Cs': 4.0, 'U': 2.0, 'Nb': 12.0, 'Cl': 30.0, 'O': 6.0}\",\"('Cl', 'Cs', 'Nb', 'O', 'U')\",OTHERS,False\nmp-1104791,\"{'Li': 1.0, 'Mg': 8.0, 'Si': 4.0}\",\"('Li', 'Mg', 'Si')\",OTHERS,False\nmp-27493,\"{'O': 32.0, 'P': 8.0, 'Sn': 12.0}\",\"('O', 'P', 'Sn')\",OTHERS,False\nmp-761260,\"{'Li': 4.0, 'V': 2.0, 'O': 4.0, 'F': 4.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-31474,\"{'Rb': 2.0, 'Hg': 7.0}\",\"('Hg', 'Rb')\",OTHERS,False\nmp-1221556,\"{'Na': 4.0, 'Mg': 1.0, 'V': 10.0, 'H': 44.0, 'O': 52.0}\",\"('H', 'Mg', 'Na', 'O', 'V')\",OTHERS,False\nmp-553949,\"{'Ag': 4.0, 'Hg': 4.0, 'Te': 6.0, 'O': 24.0}\",\"('Ag', 'Hg', 'O', 'Te')\",OTHERS,False\nmp-867164,\"{'Pm': 3.0, 'Sn': 1.0}\",\"('Pm', 'Sn')\",OTHERS,False\nmp-31476,\"{'H': 6.0, 'C': 12.0, 'Cs': 6.0}\",\"('C', 'Cs', 'H')\",OTHERS,False\nmp-603940,\"{'Fe': 2.0, 'H': 24.0, 'C': 8.0, 'N': 2.0, 'Cl': 8.0}\",\"('C', 'Cl', 'Fe', 'H', 'N')\",OTHERS,False\nmp-756542,\"{'Mn': 2.0, 'V': 2.0, 'O': 8.0}\",\"('Mn', 'O', 'V')\",OTHERS,False\nmp-31447,\"{'Tb': 2.0, 'Ag': 2.0, 'Pb': 2.0}\",\"('Ag', 'Pb', 'Tb')\",OTHERS,False\nmp-1027480,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1198290,\"{'Na': 4.0, 'U': 4.0, 'H': 36.0, 'Se': 8.0, 'O': 48.0}\",\"('H', 'Na', 'O', 'Se', 'U')\",OTHERS,False\nmp-1177564,\"{'Li': 12.0, 'Mn': 4.0, 'V': 4.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1206924,\"{'Ba': 1.0, 'Zn': 2.0, 'Ge': 2.0}\",\"('Ba', 'Ge', 'Zn')\",OTHERS,False\nmp-780704,\"{'V': 6.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-8312,\"{'As': 4.0, 'Ta': 5.0}\",\"('As', 'Ta')\",OTHERS,False\nmp-851099,\"{'Li': 9.0, 'Mn': 7.0, 'Cr': 12.0, 'O': 48.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-21013,\"{'Li': 1.0, 'C': 6.0, 'N': 6.0, 'Fe': 1.0, 'Cs': 2.0}\",\"('C', 'Cs', 'Fe', 'Li', 'N')\",OTHERS,False\nmp-1070789,\"{'Cr': 1.0, 'Au': 4.0}\",\"('Au', 'Cr')\",OTHERS,False\nmp-1224477,\"{'H': 11.0, 'I': 1.0, 'N': 2.0, 'O': 6.0}\",\"('H', 'I', 'N', 'O')\",OTHERS,False\nmp-684784,\"{'Sr': 1.0, 'Nd': 7.0, 'Fe': 8.0, 'As': 8.0, 'O': 8.0}\",\"('As', 'Fe', 'Nd', 'O', 'Sr')\",OTHERS,False\nmp-1218452,\"{'Sr': 5.0, 'Fe': 4.0, 'Co': 1.0, 'O': 10.0}\",\"('Co', 'Fe', 'O', 'Sr')\",OTHERS,False\nmp-9548,\"{'Ge': 6.0, 'As': 6.0}\",\"('As', 'Ge')\",OTHERS,False\nAg 42.9 In 43.6 Eu 13.5,\"{'Ag': 42.9, 'In': 43.6, 'Eu': 13.5}\",\"('Ag', 'Eu', 'In')\",AC,False\nmp-683616,\"{'Li': 5.0, 'Ti': 7.0, 'In': 1.0, 'P': 12.0, 'O': 48.0}\",\"('In', 'Li', 'O', 'P', 'Ti')\",OTHERS,False\nmp-30495,\"{'Sm': 1.0, 'Cd': 2.0}\",\"('Cd', 'Sm')\",OTHERS,False\nmp-769486,\"{'Na': 6.0, 'Ni': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Na', 'Ni', 'O', 'P')\",OTHERS,False\nmp-28318,\"{'Hg': 4.0, 'Te': 4.0, 'O': 12.0}\",\"('Hg', 'O', 'Te')\",OTHERS,False\nmp-1175750,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-27491,\"{'Ca': 2.0, 'Fe': 8.0, 'O': 12.0}\",\"('Ca', 'Fe', 'O')\",OTHERS,False\nmp-1227175,\"{'Ca': 2.0, 'Nd': 2.0, 'Cr': 2.0, 'O': 8.0}\",\"('Ca', 'Cr', 'Nd', 'O')\",OTHERS,False\nmp-1188236,\"{'Gd': 4.0, 'Mg': 2.0, 'Ir': 2.0, 'O': 12.0}\",\"('Gd', 'Ir', 'Mg', 'O')\",OTHERS,False\nmvc-601,\"{'Y': 1.0, 'Sn': 1.0, 'W': 2.0, 'O': 8.0}\",\"('O', 'Sn', 'W', 'Y')\",OTHERS,False\nmp-562541,\"{'Cs': 8.0, 'Na': 12.0, 'Tl': 4.0, 'O': 16.0}\",\"('Cs', 'Na', 'O', 'Tl')\",OTHERS,False\nmp-1238482,\"{'Mn': 2.0, 'Al': 4.0, 'P': 4.0, 'H': 40.0, 'O': 32.0}\",\"('Al', 'H', 'Mn', 'O', 'P')\",OTHERS,False\nmp-643432,\"{'H': 12.0, 'N': 4.0}\",\"('H', 'N')\",OTHERS,False\nmp-1099868,\"{'K': 8.0, 'Na': 24.0, 'V': 16.0, 'Mo': 16.0, 'O': 80.0}\",\"('K', 'Mo', 'Na', 'O', 'V')\",OTHERS,False\nmp-1247030,\"{'Lu': 1.0, 'Mg': 2.0, 'Mo': 3.0, 'S': 8.0}\",\"('Lu', 'Mg', 'Mo', 'S')\",OTHERS,False\nmp-1018809,\"{'Mo': 2.0, 'S': 4.0}\",\"('Mo', 'S')\",OTHERS,False\nmp-1206203,\"{'Yb': 2.0, 'Se': 2.0, 'I': 2.0}\",\"('I', 'Se', 'Yb')\",OTHERS,False\nmvc-16572,\"{'Ca': 4.0, 'Mo': 4.0, 'O': 12.0}\",\"('Ca', 'Mo', 'O')\",OTHERS,False\nmp-30599,\"{'Ti': 2.0, 'Cu': 3.0}\",\"('Cu', 'Ti')\",OTHERS,False\nmp-1204662,\"{'Sr': 18.0, 'W': 6.0, 'O': 36.0}\",\"('O', 'Sr', 'W')\",OTHERS,False\nmp-755970,\"{'Li': 6.0, 'Mn': 2.0, 'Si': 2.0, 'B': 2.0, 'O': 14.0}\",\"('B', 'Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1221713,\"{'Mn': 2.0, 'Fe': 8.0, 'Si': 6.0}\",\"('Fe', 'Mn', 'Si')\",OTHERS,False\nmp-1206795,\"{'Sm': 2.0, 'Fe': 4.0, 'Si': 2.0, 'C': 2.0}\",\"('C', 'Fe', 'Si', 'Sm')\",OTHERS,False\nmp-1095591,\"{'Tm': 3.0, 'Cu': 4.0, 'Sn': 4.0}\",\"('Cu', 'Sn', 'Tm')\",OTHERS,False\nmp-1228562,\"{'Al': 9.0, 'Ge': 3.0, 'W': 6.0}\",\"('Al', 'Ge', 'W')\",OTHERS,False\nmp-1214122,\"{'Ca': 2.0, 'Ce': 2.0, 'Al': 2.0, 'Fe': 4.0, 'Si': 6.0, 'O': 26.0}\",\"('Al', 'Ca', 'Ce', 'Fe', 'O', 'Si')\",OTHERS,False\nmp-772977,\"{'Ba': 10.0, 'Li': 1.0, 'W': 7.0, 'O': 30.0}\",\"('Ba', 'Li', 'O', 'W')\",OTHERS,False\nmp-697008,\"{'Cu': 2.0, 'H': 24.0, 'N': 4.0, 'O': 4.0, 'F': 8.0}\",\"('Cu', 'F', 'H', 'N', 'O')\",OTHERS,False\nmp-1209449,\"{'Rb': 12.0, 'Lu': 4.0, 'Cl': 24.0}\",\"('Cl', 'Lu', 'Rb')\",OTHERS,False\nmp-1214127,\"{'Ca': 2.0, 'Al': 4.0, 'Si': 12.0, 'H': 20.0, 'O': 42.0}\",\"('Al', 'Ca', 'H', 'O', 'Si')\",OTHERS,False\nmp-1218750,\"{'Sr': 2.0, 'Nb': 1.0, 'In': 1.0, 'O': 6.0}\",\"('In', 'Nb', 'O', 'Sr')\",OTHERS,False\nmp-760101,\"{'Li': 6.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1072320,\"{'Hg': 2.0, 'S': 2.0, 'Br': 2.0}\",\"('Br', 'Hg', 'S')\",OTHERS,False\nmp-1070456,\"{'Be': 3.0, 'N': 2.0}\",\"('Be', 'N')\",OTHERS,False\nmp-769464,\"{'Li': 4.0, 'La': 12.0, 'Mn': 4.0, 'O': 28.0}\",\"('La', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1199385,\"{'Er': 20.0, 'In': 40.0, 'Ni': 18.0}\",\"('Er', 'In', 'Ni')\",OTHERS,False\nmp-1235,\"{'Ti': 2.0, 'Ir': 2.0}\",\"('Ir', 'Ti')\",OTHERS,False\nmp-1179195,\"{'Si': 20.0, 'O': 30.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1223968,\"{'Ho': 2.0, 'Si': 1.0, 'Ge': 1.0}\",\"('Ge', 'Ho', 'Si')\",OTHERS,False\nmp-70,{'Rb': 1.0},\"('Rb',)\",OTHERS,False\nmp-1226388,\"{'Cr': 4.0, 'Cd': 2.0, 'Se': 6.0, 'S': 2.0}\",\"('Cd', 'Cr', 'S', 'Se')\",OTHERS,False\nmp-19253,\"{'O': 3.0, 'V': 1.0, 'Nd': 1.0}\",\"('Nd', 'O', 'V')\",OTHERS,False\nmp-11307,\"{'Mg': 2.0, 'Cd': 2.0}\",\"('Cd', 'Mg')\",OTHERS,False\nmp-1177924,\"{'Li': 2.0, 'Mn': 3.0, 'W': 1.0, 'O': 8.0}\",\"('Li', 'Mn', 'O', 'W')\",OTHERS,False\nmp-1205739,\"{'Li': 2.0, 'Sn': 1.0, 'F': 6.0}\",\"('F', 'Li', 'Sn')\",OTHERS,False\nmp-1184083,\"{'Er': 2.0, 'Zn': 1.0, 'Ag': 1.0}\",\"('Ag', 'Er', 'Zn')\",OTHERS,False\nmp-1176364,\"{'Na': 6.0, 'Li': 6.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'Na', 'O', 'P')\",OTHERS,False\nmp-865050,\"{'Hf': 1.0, 'Mg': 1.0, 'Rh': 2.0}\",\"('Hf', 'Mg', 'Rh')\",OTHERS,False\nmp-1216330,\"{'V': 2.0, 'Fe': 2.0, 'Sb': 2.0, 'O': 12.0}\",\"('Fe', 'O', 'Sb', 'V')\",OTHERS,False\nmp-694910,\"{'Fe': 35.0, 'O': 36.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-849757,\"{'Li': 4.0, 'Mn': 4.0, 'Si': 16.0, 'O': 40.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1184359,\"{'Eu': 1.0, 'Hg': 1.0, 'O': 3.0}\",\"('Eu', 'Hg', 'O')\",OTHERS,False\nmp-12867,\"{'O': 6.0, 'Sr': 2.0, 'Sn': 2.0}\",\"('O', 'Sn', 'Sr')\",OTHERS,False\nmp-1222296,\"{'Li': 1.0, 'Sm': 1.0, 'S': 2.0}\",\"('Li', 'S', 'Sm')\",OTHERS,False\nmp-1232422,\"{'Yb': 3.0, 'Hf': 1.0}\",\"('Hf', 'Yb')\",OTHERS,False\nmp-1183580,\"{'Cd': 3.0, 'B': 1.0}\",\"('B', 'Cd')\",OTHERS,False\nmp-17189,\"{'K': 6.0, 'Ce': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Ce', 'K', 'O', 'P')\",OTHERS,False\nmp-561051,\"{'Rb': 4.0, 'Sb': 8.0, 'S': 14.0}\",\"('Rb', 'S', 'Sb')\",OTHERS,False\nmp-759536,\"{'V': 8.0, 'O': 6.0, 'F': 18.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-1226037,\"{'Co': 3.0, 'Ni': 3.0, 'P': 3.0}\",\"('Co', 'Ni', 'P')\",OTHERS,False\nmp-1215636,\"{'Zn': 1.0, 'Ni': 4.0, 'O': 5.0}\",\"('Ni', 'O', 'Zn')\",OTHERS,False\nmp-1198572,\"{'Yb': 2.0, 'Al': 2.0, 'B': 28.0}\",\"('Al', 'B', 'Yb')\",OTHERS,False\nmp-753486,\"{'Ba': 2.0, 'Ca': 2.0, 'I': 8.0}\",\"('Ba', 'Ca', 'I')\",OTHERS,False\nmp-1100520,\"{'Li': 9.0, 'Mn': 7.0, 'O': 16.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-22350,\"{'N': 1.0, 'Sn': 1.0, 'Nd': 3.0}\",\"('N', 'Nd', 'Sn')\",OTHERS,False\nmvc-9204,\"{'Ti': 2.0, 'Cr': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1227996,\"{'Ca': 6.0, 'Fe': 14.0, 'Si': 12.0, 'O': 48.0}\",\"('Ca', 'Fe', 'O', 'Si')\",OTHERS,False\nmp-504372,\"{'Ni': 12.0, 'P': 14.0, 'O': 48.0}\",\"('Ni', 'O', 'P')\",OTHERS,False\nmp-1104792,\"{'Mn': 1.0, 'Be': 12.0}\",\"('Be', 'Mn')\",OTHERS,False\nmp-1224812,\"{'Ga': 1.0, 'Co': 4.0}\",\"('Co', 'Ga')\",OTHERS,False\nmp-1037110,\"{'Mg': 30.0, 'Zn': 1.0, 'Bi': 1.0, 'O': 32.0}\",\"('Bi', 'Mg', 'O', 'Zn')\",OTHERS,False\nmp-862555,\"{'Li': 1.0, 'Y': 2.0, 'Al': 1.0}\",\"('Al', 'Li', 'Y')\",OTHERS,False\nmp-697813,\"{'Li': 4.0, 'Cr': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-694534,\"{'Li': 2.0, 'Fe': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-772498,\"{'Na': 6.0, 'Li': 6.0, 'Mn': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Li', 'Mn', 'Na', 'O', 'P')\",OTHERS,False\nmp-16373,\"{'Ge': 4.0, 'U': 2.0}\",\"('Ge', 'U')\",OTHERS,False\nmp-763099,\"{'Li': 2.0, 'V': 1.0, 'O': 2.0, 'F': 1.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-705201,\"{'Fe': 16.0, 'P': 16.0, 'O': 64.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-1075482,\"{'Mg': 12.0, 'Si': 16.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1219995,\"{'Pr': 12.0, 'Al': 6.0, 'Fe': 22.0}\",\"('Al', 'Fe', 'Pr')\",OTHERS,False\nmvc-1666,\"{'Ta': 4.0, 'Zn': 2.0, 'O': 12.0}\",\"('O', 'Ta', 'Zn')\",OTHERS,False\nmp-778347,\"{'Li': 4.0, 'Fe': 4.0, 'F': 16.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-1198871,\"{'Zn': 6.0, 'P': 12.0, 'H': 12.0, 'O': 38.0}\",\"('H', 'O', 'P', 'Zn')\",OTHERS,False\nmp-705845,\"{'Ba': 4.0, 'Fe': 4.0, 'O': 12.0}\",\"('Ba', 'Fe', 'O')\",OTHERS,False\nmp-1113297,\"{'Eu': 1.0, 'Rb': 2.0, 'Cu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cu', 'Eu', 'Rb')\",OTHERS,False\nmp-12170,\"{'S': 10.0, 'Sn': 2.0, 'La': 4.0}\",\"('La', 'S', 'Sn')\",OTHERS,False\nmp-655613,\"{'Tb': 6.0, 'Cs': 2.0, 'Te': 7.0, 'N': 2.0}\",\"('Cs', 'N', 'Tb', 'Te')\",OTHERS,False\nmp-1183141,\"{'Ag': 2.0, 'C': 2.0}\",\"('Ag', 'C')\",OTHERS,False\nmvc-1471,\"{'Y': 2.0, 'Ti': 6.0, 'Se': 4.0, 'Cl': 2.0, 'O': 16.0}\",\"('Cl', 'O', 'Se', 'Ti', 'Y')\",OTHERS,False\nmp-3465,\"{'B': 2.0, 'Rh': 3.0, 'La': 1.0}\",\"('B', 'La', 'Rh')\",OTHERS,False\nmp-1203539,\"{'Gd': 4.0, 'Sb': 4.0, 'Mo': 8.0, 'O': 36.0}\",\"('Gd', 'Mo', 'O', 'Sb')\",OTHERS,False\nmp-1194954,\"{'Na': 4.0, 'Nb': 8.0, 'H': 28.0, 'O': 36.0}\",\"('H', 'Na', 'Nb', 'O')\",OTHERS,False\nmp-569580,\"{'Na': 4.0, 'La': 16.0, 'I': 28.0, 'N': 8.0}\",\"('I', 'La', 'N', 'Na')\",OTHERS,False\nmp-1075132,\"{'Mg': 6.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-979427,\"{'Y': 1.0, 'Ho': 1.0, 'Zn': 2.0}\",\"('Ho', 'Y', 'Zn')\",OTHERS,False\nmp-1079845,\"{'Mn': 3.0, 'Ni': 3.0, 'As': 3.0}\",\"('As', 'Mn', 'Ni')\",OTHERS,False\nmp-1209115,\"{'Sb': 2.0, 'H': 1.0, 'F': 13.0}\",\"('F', 'H', 'Sb')\",OTHERS,False\nmp-780393,\"{'Ho': 12.0, 'B': 12.0, 'O': 36.0}\",\"('B', 'Ho', 'O')\",OTHERS,False\nmp-8769,\"{'Co': 2.0, 'Se': 4.0, 'Rb': 4.0}\",\"('Co', 'Rb', 'Se')\",OTHERS,False\nmp-754502,\"{'Sm': 1.0, 'Y': 1.0, 'O': 2.0}\",\"('O', 'Sm', 'Y')\",OTHERS,False\nmp-779727,\"{'Ti': 34.0, 'N': 12.0, 'O': 48.0}\",\"('N', 'O', 'Ti')\",OTHERS,False\nmp-570113,\"{'Bi': 2.0, 'Au': 4.0}\",\"('Au', 'Bi')\",OTHERS,False\nmp-1019802,\"{'K': 2.0, 'Al': 2.0, 'P': 8.0, 'O': 24.0}\",\"('Al', 'K', 'O', 'P')\",OTHERS,False\nmp-1093563,\"{'Cs': 1.0, 'Rb': 1.0, 'Au': 2.0}\",\"('Au', 'Cs', 'Rb')\",OTHERS,False\nmp-1217793,\"{'Sr': 1.0, 'Ti': 1.0, 'Fe': 3.0, 'Bi': 3.0, 'O': 12.0}\",\"('Bi', 'Fe', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1209862,\"{'P': 4.0, 'N': 4.0, 'F': 24.0}\",\"('F', 'N', 'P')\",OTHERS,False\nmp-559832,\"{'Hg': 12.0, 'S': 8.0, 'Br': 8.0}\",\"('Br', 'Hg', 'S')\",OTHERS,False\nmp-556908,\"{'Nd': 10.0, 'As': 8.0, 'Cl': 6.0, 'O': 24.0}\",\"('As', 'Cl', 'Nd', 'O')\",OTHERS,False\nmvc-12627,\"{'Mg': 2.0, 'V': 4.0, 'O': 8.0}\",\"('Mg', 'O', 'V')\",OTHERS,False\nmp-776547,\"{'Li': 4.0, 'Fe': 2.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1223477,\"{'K': 1.0, 'As': 2.0, 'Rh': 1.0}\",\"('As', 'K', 'Rh')\",OTHERS,False\nmp-758261,\"{'Li': 8.0, 'Cr': 4.0, 'Si': 16.0, 'O': 40.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,False\nmp-676586,\"{'Na': 1.0, 'V': 2.0, 'S': 4.0}\",\"('Na', 'S', 'V')\",OTHERS,False\nmp-531340,\"{'Al': 28.0, 'Mg': 14.0, 'O': 56.0}\",\"('Al', 'Mg', 'O')\",OTHERS,False\nmp-642625,\"{'Hg': 36.0, 'Sb': 3.0, 'Br': 3.0, 'Cl': 6.0, 'O': 18.0}\",\"('Br', 'Cl', 'Hg', 'O', 'Sb')\",OTHERS,False\nmp-773084,\"{'Ba': 6.0, 'Li': 2.0, 'Ti': 7.0, 'Nb': 9.0, 'O': 42.0}\",\"('Ba', 'Li', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-557180,\"{'Ca': 2.0, 'As': 4.0, 'Xe': 8.0, 'F': 40.0}\",\"('As', 'Ca', 'F', 'Xe')\",OTHERS,False\nmp-1202141,\"{'Tm': 24.0, 'Ga': 16.0}\",\"('Ga', 'Tm')\",OTHERS,False\nmp-1195366,\"{'Cu': 8.0, 'Pb': 16.0, 'Cl': 24.0, 'O': 16.0}\",\"('Cl', 'Cu', 'O', 'Pb')\",OTHERS,False\nmp-754279,\"{'Li': 4.0, 'Cr': 3.0, 'Ni': 1.0, 'O': 8.0}\",\"('Cr', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-998988,\"{'Ti': 3.0, 'Ga': 1.0}\",\"('Ga', 'Ti')\",OTHERS,False\nmp-1238924,\"{'Tl': 3.0, 'As': 1.0, 'F': 6.0}\",\"('As', 'F', 'Tl')\",OTHERS,False\nmp-504555,\"{'U': 8.0, 'K': 4.0, 'F': 36.0}\",\"('F', 'K', 'U')\",OTHERS,False\nmp-775263,\"{'Li': 6.0, 'Co': 1.0, 'Ni': 9.0, 'O': 20.0}\",\"('Co', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-1183555,\"{'Ca': 1.0, 'Nd': 1.0, 'Ag': 2.0}\",\"('Ag', 'Ca', 'Nd')\",OTHERS,False\nmp-772665,\"{'Be': 4.0, 'Cr': 4.0, 'O': 16.0}\",\"('Be', 'Cr', 'O')\",OTHERS,False\nmp-581443,\"{'Cs': 24.0, 'U': 12.0, 'Mo': 12.0, 'O': 84.0}\",\"('Cs', 'Mo', 'O', 'U')\",OTHERS,False\nmp-26796,\"{'Cu': 10.0, 'P': 6.0, 'O': 26.0}\",\"('Cu', 'O', 'P')\",OTHERS,False\nmp-1176952,\"{'Li': 12.0, 'Mn': 2.0, 'V': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1196989,\"{'Zn': 2.0, 'P': 4.0, 'H': 16.0, 'O': 20.0}\",\"('H', 'O', 'P', 'Zn')\",OTHERS,False\nmp-42981,\"{'F': 4.0, 'Gd': 4.0, 'Na': 4.0, 'Nb': 4.0, 'O': 24.0, 'Ti': 4.0}\",\"('F', 'Gd', 'Na', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-1101151,\"{'Na': 1.0, 'Ho': 1.0, 'O': 2.0}\",\"('Ho', 'Na', 'O')\",OTHERS,False\nmp-1074455,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-5401,\"{'B': 8.0, 'O': 20.0, 'Sr': 8.0}\",\"('B', 'O', 'Sr')\",OTHERS,False\nmp-1228760,\"{'Ba': 6.0, 'Ca': 6.0, 'Cu': 9.0, 'Hg': 3.0, 'O': 25.0}\",\"('Ba', 'Ca', 'Cu', 'Hg', 'O')\",OTHERS,False\nmp-1195488,\"{'Sr': 2.0, 'Fe': 2.0, 'Ni': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Ni', 'O', 'P', 'Sr')\",OTHERS,False\nmp-560410,\"{'Sr': 4.0, 'U': 2.0, 'Ni': 2.0, 'O': 12.0}\",\"('Ni', 'O', 'Sr', 'U')\",OTHERS,False\nmp-999126,\"{'Tb': 1.0, 'Na': 1.0, 'S': 2.0}\",\"('Na', 'S', 'Tb')\",OTHERS,False\nmp-1232041,\"{'La': 8.0, 'Mg': 4.0, 'Se': 16.0}\",\"('La', 'Mg', 'Se')\",OTHERS,False\nmp-1268088,\"{'Ba': 1.0, 'Al': 1.0, 'Cu': 1.0, 'Ag': 1.0, 'O': 5.0}\",\"('Ag', 'Al', 'Ba', 'Cu', 'O')\",OTHERS,False\nmp-1095972,\"{'Sr': 2.0, 'Hg': 1.0, 'Ge': 1.0}\",\"('Ge', 'Hg', 'Sr')\",OTHERS,False\nmp-4124,\"{'C': 1.0, 'N': 2.0, 'Ca': 1.0}\",\"('C', 'Ca', 'N')\",OTHERS,False\nmp-570175,\"{'Ce': 10.0, 'Si': 6.0}\",\"('Ce', 'Si')\",OTHERS,False\nmp-14970,\"{'B': 2.0, 'O': 10.0, 'Cu': 2.0, 'Ba': 2.0, 'La': 2.0}\",\"('B', 'Ba', 'Cu', 'La', 'O')\",OTHERS,False\nmp-1096469,\"{'Hf': 2.0, 'Re': 1.0, 'Pt': 1.0}\",\"('Hf', 'Pt', 'Re')\",OTHERS,False\nmp-773055,\"{'Li': 6.0, 'Mg': 6.0, 'Ti': 12.0, 'O': 32.0}\",\"('Li', 'Mg', 'O', 'Ti')\",OTHERS,False\nmp-679985,\"{'Ba': 6.0, 'In': 8.0, 'Cu': 6.0, 'O': 24.0}\",\"('Ba', 'Cu', 'In', 'O')\",OTHERS,False\nmp-569136,\"{'K': 6.0, 'Cu': 22.0, 'Te': 32.0}\",\"('Cu', 'K', 'Te')\",OTHERS,False\nmp-17885,\"{'Ge': 8.0, 'Te': 20.0, 'Ba': 8.0}\",\"('Ba', 'Ge', 'Te')\",OTHERS,False\nmp-1214682,\"{'Ba': 12.0, 'Gd': 4.0, 'Al': 8.0, 'O': 30.0}\",\"('Al', 'Ba', 'Gd', 'O')\",OTHERS,False\nmp-1248937,\"{'Y': 4.0, 'Si': 2.0, 'Sb': 2.0, 'W': 13.0, 'O': 28.0}\",\"('O', 'Sb', 'Si', 'W', 'Y')\",OTHERS,False\nmp-977549,\"{'Zr': 2.0, 'Os': 1.0, 'Ru': 1.0}\",\"('Os', 'Ru', 'Zr')\",OTHERS,False\nmp-23776,\"{'H': 32.0, 'Be': 4.0, 'O': 16.0, 'Cl': 8.0}\",\"('Be', 'Cl', 'H', 'O')\",OTHERS,False\nGa 33 Fe 46 Cu 3 Si 18,\"{'Ga': 33.0, 'Fe': 46.0, 'Cu': 3.0, 'Si': 18.0}\",\"('Cu', 'Fe', 'Ga', 'Si')\",QC,False\nmp-5690,\"{'O': 12.0, 'Sc': 4.0, 'Gd': 4.0}\",\"('Gd', 'O', 'Sc')\",OTHERS,False\nmp-1197552,\"{'U': 8.0, 'Pb': 4.0, 'Se': 20.0}\",\"('Pb', 'Se', 'U')\",OTHERS,False\nmp-17646,\"{'O': 24.0, 'Yb': 8.0, 'W': 4.0}\",\"('O', 'W', 'Yb')\",OTHERS,False\nmp-34508,\"{'S': 8.0, 'Sm': 4.0, 'Sr': 2.0}\",\"('S', 'Sm', 'Sr')\",OTHERS,False\nmp-756639,\"{'Li': 6.0, 'Nb': 3.0, 'O': 3.0, 'F': 15.0}\",\"('F', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-754549,\"{'Na': 4.0, 'Cu': 2.0, 'O': 4.0}\",\"('Cu', 'Na', 'O')\",OTHERS,False\nmp-567908,\"{'Lu': 4.0, 'B': 3.0, 'C': 4.0}\",\"('B', 'C', 'Lu')\",OTHERS,False\nmp-1184869,\"{'Ho': 1.0, 'Lu': 1.0, 'Hg': 2.0}\",\"('Hg', 'Ho', 'Lu')\",OTHERS,False\nmp-1114593,\"{'Rb': 2.0, 'Na': 1.0, 'Nd': 1.0, 'Cl': 6.0}\",\"('Cl', 'Na', 'Nd', 'Rb')\",OTHERS,False\nmp-1073501,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-560029,\"{'Y': 6.0, 'Br': 2.0, 'O': 8.0}\",\"('Br', 'O', 'Y')\",OTHERS,False\nmp-1096815,\"{'Ba': 6.0, 'Ta': 8.0, 'Nb': 2.0, 'O': 30.0}\",\"('Ba', 'Nb', 'O', 'Ta')\",OTHERS,False\nmp-24150,\"{'H': 1.0, 'Li': 1.0, 'O': 3.0, 'Nd': 2.0}\",\"('H', 'Li', 'Nd', 'O')\",OTHERS,False\nmvc-10122,\"{'Mg': 6.0, 'Ni': 12.0, 'O': 24.0}\",\"('Mg', 'Ni', 'O')\",OTHERS,False\nmvc-9680,\"{'Pr': 2.0, 'Zn': 2.0, 'W': 4.0, 'O': 12.0}\",\"('O', 'Pr', 'W', 'Zn')\",OTHERS,False\nmp-4227,\"{'S': 6.0, 'V': 2.0, 'Ba': 2.0}\",\"('Ba', 'S', 'V')\",OTHERS,False\nmp-1227384,\"{'Ca': 2.0, 'Fe': 6.0, 'Si': 8.0, 'O': 24.0}\",\"('Ca', 'Fe', 'O', 'Si')\",OTHERS,False\nmp-3882,\"{'Si': 2.0, 'Rh': 2.0, 'Sm': 1.0}\",\"('Rh', 'Si', 'Sm')\",OTHERS,False\nmp-1184828,\"{'Ho': 1.0, 'Tm': 1.0, 'In': 2.0}\",\"('Ho', 'In', 'Tm')\",OTHERS,False\nmp-1246713,\"{'Sr': 2.0, 'Zn': 4.0, 'N': 4.0}\",\"('N', 'Sr', 'Zn')\",OTHERS,False\nmp-1246665,\"{'Li': 2.0, 'Cr': 4.0, 'N': 6.0}\",\"('Cr', 'Li', 'N')\",OTHERS,False\nmp-1113314,\"{'Na': 2.0, 'Cu': 1.0, 'Sb': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cu', 'Na', 'Sb')\",OTHERS,False\nmp-20497,\"{'Sr': 2.0, 'In': 4.0, 'Ir': 2.0}\",\"('In', 'Ir', 'Sr')\",OTHERS,False\nmp-28749,\"{'Cr': 4.0, 'Xe': 4.0, 'F': 24.0}\",\"('Cr', 'F', 'Xe')\",OTHERS,False\nmp-856,\"{'O': 4.0, 'Sn': 2.0}\",\"('O', 'Sn')\",OTHERS,False\nmp-1186611,\"{'Pm': 1.0, 'Nd': 1.0, 'Ga': 2.0}\",\"('Ga', 'Nd', 'Pm')\",OTHERS,False\nmp-1382,\"{'S': 8.0, 'Ce': 6.0}\",\"('Ce', 'S')\",OTHERS,False\nmp-4756,\"{'Zn': 2.0, 'Sn': 2.0, 'Sb': 4.0}\",\"('Sb', 'Sn', 'Zn')\",OTHERS,False\nmp-1207452,\"{'Zr': 6.0, 'U': 4.0, 'Ge': 8.0}\",\"('Ge', 'U', 'Zr')\",OTHERS,False\nmp-755658,\"{'Ce': 2.0, 'Pr': 2.0, 'O': 4.0}\",\"('Ce', 'O', 'Pr')\",OTHERS,False\nmp-867235,\"{'Li': 1.0, 'Y': 2.0, 'Ir': 1.0}\",\"('Ir', 'Li', 'Y')\",OTHERS,False\nmp-1176835,\"{'Li': 8.0, 'Fe': 7.0, 'P': 12.0, 'W': 1.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'P', 'W')\",OTHERS,False\nmvc-12108,\"{'Ca': 2.0, 'Mn': 4.0, 'O': 8.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,False\nmp-3042,\"{'F': 6.0, 'Si': 1.0, 'K': 2.0}\",\"('F', 'K', 'Si')\",OTHERS,False\nmp-1003403,\"{'Mn': 16.0, 'H': 2.0, 'O': 32.0}\",\"('H', 'Mn', 'O')\",OTHERS,False\nmp-774794,\"{'Li': 20.0, 'Sm': 12.0, 'Sb': 8.0, 'O': 48.0}\",\"('Li', 'O', 'Sb', 'Sm')\",OTHERS,False\nmp-1194649,\"{'Rb': 2.0, 'Na': 4.0, 'Mn': 6.0, 'P': 8.0, 'Cl': 2.0, 'O': 28.0}\",\"('Cl', 'Mn', 'Na', 'O', 'P', 'Rb')\",OTHERS,False\nmp-1178641,\"{'Zn': 1.0, 'Cu': 3.0, 'Ni': 1.0, 'Se': 4.0}\",\"('Cu', 'Ni', 'Se', 'Zn')\",OTHERS,False\nAl 76 Co 24,\"{'Al': 76.0, 'Co': 24.0}\",\"('Al', 'Co')\",AC,False\nmp-1039529,\"{'Ca': 6.0, 'Mg': 12.0}\",\"('Ca', 'Mg')\",OTHERS,False\nmp-12107,\"{'Ti': 1.0, 'Pt': 3.0}\",\"('Pt', 'Ti')\",OTHERS,False\nmp-1186622,\"{'Pm': 1.0, 'P': 3.0}\",\"('P', 'Pm')\",OTHERS,False\nmp-1211637,\"{'K': 2.0, 'Ca': 2.0, 'P': 2.0, 'H': 2.0, 'O': 8.0}\",\"('Ca', 'H', 'K', 'O', 'P')\",OTHERS,False\nmp-542709,\"{'Eu': 2.0, 'Si': 12.0}\",\"('Eu', 'Si')\",OTHERS,False\nmp-638,\"{'Zn': 5.0, 'Sr': 1.0}\",\"('Sr', 'Zn')\",OTHERS,False\nmp-1183254,\"{'Ag': 6.0, 'S': 2.0}\",\"('Ag', 'S')\",OTHERS,False\nmp-571333,\"{'Ca': 10.0, 'Si': 4.0, 'N': 12.0}\",\"('Ca', 'N', 'Si')\",OTHERS,False\nmp-1064861,\"{'Ga': 1.0, 'C': 3.0}\",\"('C', 'Ga')\",OTHERS,False\nmp-866187,\"{'Ti': 2.0, 'Zn': 1.0, 'Tc': 1.0}\",\"('Tc', 'Ti', 'Zn')\",OTHERS,False\nmp-1224473,\"{'Hf': 2.0, 'Ni': 1.0, 'S': 4.0}\",\"('Hf', 'Ni', 'S')\",OTHERS,False\nmp-556074,\"{'K': 2.0, 'Cu': 3.0, 'Se': 4.0, 'O': 12.0}\",\"('Cu', 'K', 'O', 'Se')\",OTHERS,False\nmp-568827,\"{'Be': 12.0, 'W': 1.0}\",\"('Be', 'W')\",OTHERS,False\nmp-9664,\"{'B': 2.0, 'P': 4.0, 'K': 6.0}\",\"('B', 'K', 'P')\",OTHERS,False\nmvc-12125,\"{'Fe': 4.0, 'O': 8.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-22424,\"{'O': 8.0, 'Na': 4.0, 'S': 2.0}\",\"('Na', 'O', 'S')\",OTHERS,False\nmp-1111572,\"{'K': 2.0, 'Tl': 1.0, 'Pd': 1.0, 'F': 6.0}\",\"('F', 'K', 'Pd', 'Tl')\",OTHERS,False\nmp-1194940,\"{'Na': 16.0, 'Fe': 8.0, 'P': 8.0, 'O': 32.0, 'F': 8.0}\",\"('F', 'Fe', 'Na', 'O', 'P')\",OTHERS,False\nmp-13082,\"{'Si': 1.0, 'Mn': 2.0, 'Co': 1.0}\",\"('Co', 'Mn', 'Si')\",OTHERS,False\nmp-997004,\"{'Ca': 2.0, 'Ag': 2.0, 'O': 4.0}\",\"('Ag', 'Ca', 'O')\",OTHERS,False\nmp-757284,\"{'Mn': 3.0, 'Cr': 1.0, 'Co': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Co', 'Cr', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1213119,\"{'Dy': 2.0, 'Cu': 1.0, 'Si': 4.0, 'O': 12.0}\",\"('Cu', 'Dy', 'O', 'Si')\",OTHERS,False\nmp-530539,\"{'O': 36.0, 'Sr': 16.0, 'U': 8.0}\",\"('O', 'Sr', 'U')\",OTHERS,False\nmp-510662,\"{'Cs': 2.0, 'U': 2.0, 'Ag': 2.0, 'Se': 6.0}\",\"('Ag', 'Cs', 'Se', 'U')\",OTHERS,False\nmp-630391,\"{'Cs': 4.0, 'Zn': 4.0, 'Ag': 4.0, 'C': 16.0, 'S': 16.0, 'N': 16.0}\",\"('Ag', 'C', 'Cs', 'N', 'S', 'Zn')\",OTHERS,False\nmp-1104531,\"{'Sm': 4.0, 'Te': 10.0}\",\"('Sm', 'Te')\",OTHERS,False\nmp-974744,\"{'Nd': 1.0, 'Zn': 2.0, 'Ag': 1.0}\",\"('Ag', 'Nd', 'Zn')\",OTHERS,False\nmp-1198063,\"{'Na': 4.0, 'Ti': 4.0, 'Si': 4.0, 'O': 22.0}\",\"('Na', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-542934,\"{'Cu': 18.0, 'Ce': 2.0, 'Mg': 4.0}\",\"('Ce', 'Cu', 'Mg')\",OTHERS,False\nmp-583193,\"{'Cs': 12.0, 'P': 4.0, 'Se': 16.0}\",\"('Cs', 'P', 'Se')\",OTHERS,False\nmp-686717,\"{'Fe': 2.0, 'Ni': 1.0, 'Se': 4.0}\",\"('Fe', 'Ni', 'Se')\",OTHERS,False\nmp-29398,\"{'I': 6.0, 'Cs': 2.0, 'Hf': 1.0}\",\"('Cs', 'Hf', 'I')\",OTHERS,False\nmp-12666,\"{'Be': 12.0, 'Pd': 1.0}\",\"('Be', 'Pd')\",OTHERS,False\nmp-1184880,\"{'K': 3.0, 'Hf': 1.0}\",\"('Hf', 'K')\",OTHERS,False\nmp-1229278,\"{'Al': 4.0, 'H': 50.0, 'S': 7.0, 'O': 52.0}\",\"('Al', 'H', 'O', 'S')\",OTHERS,False\nmp-562965,\"{'Cs': 4.0, 'Cr': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Cr', 'Cs', 'O', 'P')\",OTHERS,False\nmp-1203391,\"{'K': 64.0, 'Sr': 16.0, 'Si': 48.0, 'O': 144.0}\",\"('K', 'O', 'Si', 'Sr')\",OTHERS,False\nmp-1215290,\"{'Zr': 2.0, 'Nb': 2.0, 'Fe': 8.0}\",\"('Fe', 'Nb', 'Zr')\",OTHERS,False\nmp-1216039,\"{'Zr': 2.0, 'Ti': 3.0, 'Pb': 5.0, 'O': 15.0}\",\"('O', 'Pb', 'Ti', 'Zr')\",OTHERS,False\nmp-1185930,\"{'Mn': 6.0, 'Sb': 2.0}\",\"('Mn', 'Sb')\",OTHERS,False\nmp-13525,\"{'In': 3.0, 'Ho': 3.0, 'Ir': 3.0}\",\"('Ho', 'In', 'Ir')\",OTHERS,False\nmp-1227614,\"{'Ca': 4.0, 'Mg': 3.0, 'Si': 8.0, 'Ni': 1.0, 'O': 24.0}\",\"('Ca', 'Mg', 'Ni', 'O', 'Si')\",OTHERS,False\nmp-1183913,\"{'Cs': 1.0, 'Pd': 1.0, 'O': 3.0}\",\"('Cs', 'O', 'Pd')\",OTHERS,False\nmp-1232353,\"{'Sr': 6.0, 'Nd': 2.0, 'Ta': 2.0, 'Al': 6.0, 'O': 24.0}\",\"('Al', 'Nd', 'O', 'Sr', 'Ta')\",OTHERS,False\nmp-1196488,\"{'Zn': 8.0, 'H': 40.0, 'Cl': 16.0, 'O': 20.0}\",\"('Cl', 'H', 'O', 'Zn')\",OTHERS,False\nmp-746730,\"{'Fe': 4.0, 'P': 16.0, 'O': 44.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-755959,\"{'Na': 4.0, 'Li': 4.0, 'O': 4.0}\",\"('Li', 'Na', 'O')\",OTHERS,False\nmp-800,\"{'B': 2.0, 'Tm': 1.0}\",\"('B', 'Tm')\",OTHERS,False\nmp-1202414,\"{'Nd': 40.0, 'Se': 56.0, 'O': 4.0}\",\"('Nd', 'O', 'Se')\",OTHERS,False\nmp-1213254,\"{'Cs': 2.0, 'Gd': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Cs', 'Gd', 'O', 'W')\",OTHERS,False\nmp-24179,\"{'H': 24.0, 'C': 8.0, 'N': 4.0, 'O': 16.0, 'S': 8.0, 'K': 4.0}\",\"('C', 'H', 'K', 'N', 'O', 'S')\",OTHERS,False\nmp-1078860,\"{'Sr': 2.0, 'Ge': 2.0, 'Au': 6.0}\",\"('Au', 'Ge', 'Sr')\",OTHERS,False\nmp-1180133,\"{'Na': 1.0, 'Ca': 1.0, 'H': 6.0, 'Ir': 1.0}\",\"('Ca', 'H', 'Ir', 'Na')\",OTHERS,False\nmp-759404,\"{'Li': 6.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1207695,\"{'Tm': 4.0, 'S': 4.0, 'I': 4.0}\",\"('I', 'S', 'Tm')\",OTHERS,False\nmp-1103788,\"{'Sr': 2.0, 'Ni': 4.0, 'P': 8.0}\",\"('Ni', 'P', 'Sr')\",OTHERS,False\nmp-1255862,\"{'Mg': 8.0, 'Si': 14.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1219137,\"{'Sm': 2.0, 'Ga': 3.0, 'Cu': 1.0}\",\"('Cu', 'Ga', 'Sm')\",OTHERS,False\nmp-1222005,\"{'Mn': 3.0, 'Ge': 1.0}\",\"('Ge', 'Mn')\",OTHERS,False\nmp-849328,\"{'Li': 4.0, 'Mn': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1080815,\"{'Zr': 3.0, 'Sn': 3.0, 'Rh': 3.0}\",\"('Rh', 'Sn', 'Zr')\",OTHERS,False\nmp-1211549,\"{'La': 12.0, 'Sb': 4.0, 'O': 28.0}\",\"('La', 'O', 'Sb')\",OTHERS,False\nmp-1079542,\"{'Co': 3.0, 'Ni': 3.0, 'As': 3.0}\",\"('As', 'Co', 'Ni')\",OTHERS,False\nAg 47.7 In 38.7 Ce 14.2,\"{'Ag': 47.7, 'In': 38.7, 'Ce': 14.2}\",\"('Ag', 'Ce', 'In')\",AC,False\nmp-676893,\"{'Ca': 4.0, 'Th': 1.0, 'F': 12.0}\",\"('Ca', 'F', 'Th')\",OTHERS,False\nmp-1182283,\"{'Ca': 4.0, 'Mn': 2.0, 'As': 4.0, 'O': 20.0}\",\"('As', 'Ca', 'Mn', 'O')\",OTHERS,False\nmp-1207424,\"{'Zr': 8.0, 'In': 4.0, 'Au': 8.0}\",\"('Au', 'In', 'Zr')\",OTHERS,False\nmp-774920,\"{'Li': 2.0, 'Fe': 2.0, 'Sb': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Sb')\",OTHERS,False\nmp-1214265,\"{'Bi': 12.0, 'Br': 5.0, 'O': 16.0}\",\"('Bi', 'Br', 'O')\",OTHERS,False\nmp-758147,\"{'Li': 4.0, 'Cu': 4.0, 'P': 12.0, 'O': 36.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-557981,\"{'K': 24.0, 'Co': 24.0, 'P': 24.0, 'O': 96.0}\",\"('Co', 'K', 'O', 'P')\",OTHERS,False\nmp-1176362,\"{'Na': 6.0, 'Li': 6.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'Na', 'O', 'P')\",OTHERS,False\nmp-961655,\"{'Y': 1.0, 'Cd': 1.0, 'Ga': 1.0}\",\"('Cd', 'Ga', 'Y')\",OTHERS,False\nmp-1215709,\"{'Y': 1.0, 'Zr': 1.0, 'Fe': 4.0}\",\"('Fe', 'Y', 'Zr')\",OTHERS,False\nmp-1214488,\"{'Ba': 8.0, 'As': 6.0}\",\"('As', 'Ba')\",OTHERS,False\nmp-505669,\"{'La': 8.0, 'Co': 8.0, 'O': 20.0}\",\"('Co', 'La', 'O')\",OTHERS,False\nmp-28575,\"{'S': 16.0, 'Cl': 12.0, 'W': 2.0}\",\"('Cl', 'S', 'W')\",OTHERS,False\nmp-17702,\"{'Yb': 8.0, 'Si': 4.0, 'O': 20.0}\",\"('O', 'Si', 'Yb')\",OTHERS,False\nmp-565518,\"{'Na': 2.0, 'V': 6.0, 'Fe': 6.0, 'O': 24.0}\",\"('Fe', 'Na', 'O', 'V')\",OTHERS,False\nmp-1004373,\"{'Li': 4.0, 'Mn': 4.0, 'O': 8.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1174854,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1104073,\"{'C': 11.0, 'N': 4.0}\",\"('C', 'N')\",OTHERS,False\nmp-1029176,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-766923,\"{'Li': 4.0, 'V': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Li', 'O', 'Si', 'V')\",OTHERS,False\nmp-1194852,\"{'Na': 8.0, 'Cd': 8.0, 'P': 24.0, 'H': 64.0, 'O': 80.0}\",\"('Cd', 'H', 'Na', 'O', 'P')\",OTHERS,False\nmp-27581,\"{'Pb': 7.0, 'Cl': 2.0, 'F': 12.0}\",\"('Cl', 'F', 'Pb')\",OTHERS,False\nmp-652036,\"{'Gd': 4.0, 'Fe': 20.0, 'P': 12.0}\",\"('Fe', 'Gd', 'P')\",OTHERS,False\nmp-29034,\"{'Ge': 8.0, 'Te': 24.0, 'Tl': 16.0}\",\"('Ge', 'Te', 'Tl')\",OTHERS,False\nmp-1009830,\"{'Be': 2.0, 'Zn': 1.0}\",\"('Be', 'Zn')\",OTHERS,False\nmp-1219533,\"{'Re': 1.0, 'Ir': 1.0}\",\"('Ir', 'Re')\",OTHERS,False\nmp-1227624,\"{'Fe': 4.0, 'Cu': 26.0, 'Ge': 4.0, 'S': 32.0}\",\"('Cu', 'Fe', 'Ge', 'S')\",OTHERS,False\nmp-1076445,\"{'Sr': 8.0, 'Mn': 1.0, 'Fe': 7.0, 'O': 24.0}\",\"('Fe', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-694881,\"{'Na': 2.0, 'Nd': 6.0, 'Ti': 6.0, 'Mn': 2.0, 'O': 24.0}\",\"('Mn', 'Na', 'Nd', 'O', 'Ti')\",OTHERS,False\nmp-636950,\"{'Mo': 8.0, 'P': 8.0, 'O': 44.0}\",\"('Mo', 'O', 'P')\",OTHERS,False\nmp-1210917,\"{'Lu': 4.0, 'Sn': 4.0, 'F': 28.0}\",\"('F', 'Lu', 'Sn')\",OTHERS,False\nmp-1175736,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1186819,\"{'Rb': 4.0, 'Mg': 2.0}\",\"('Mg', 'Rb')\",OTHERS,False\nmp-5673,\"{'P': 16.0, 'Ni': 2.0, 'Mo': 2.0}\",\"('Mo', 'Ni', 'P')\",OTHERS,False\nmp-1019781,\"{'K': 4.0, 'Na': 6.0, 'P': 6.0, 'O': 20.0}\",\"('K', 'Na', 'O', 'P')\",OTHERS,False\nmp-1226346,\"{'Cr': 3.0, 'Te': 2.0, 'Se': 2.0}\",\"('Cr', 'Se', 'Te')\",OTHERS,False\nmp-554930,\"{'Nb': 8.0, 'Ag': 4.0, 'P': 4.0, 'S': 40.0}\",\"('Ag', 'Nb', 'P', 'S')\",OTHERS,False\nmp-704492,\"{'Mn': 16.0, 'P': 16.0, 'O': 64.0}\",\"('Mn', 'O', 'P')\",OTHERS,False\nmp-1239130,\"{'Nb': 2.0, 'Cr': 6.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cr', 'Cu', 'Nb', 'S')\",OTHERS,False\nmp-1096686,\"{'Tl': 1.0, 'Bi': 1.0, 'Pb': 2.0}\",\"('Bi', 'Pb', 'Tl')\",OTHERS,False\nmp-1222926,\"{'La': 1.0, 'Cu': 1.0, 'Si': 2.0, 'Ni': 1.0}\",\"('Cu', 'La', 'Ni', 'Si')\",OTHERS,False\nmp-28137,\"{'O': 8.0, 'Cl': 2.0, 'Co': 1.0}\",\"('Cl', 'Co', 'O')\",OTHERS,False\nmp-867175,\"{'Sm': 4.0, 'Ag': 4.0, 'As': 8.0}\",\"('Ag', 'As', 'Sm')\",OTHERS,False\nmp-22829,\"{'B': 32.0, 'O': 56.0, 'Co': 8.0}\",\"('B', 'Co', 'O')\",OTHERS,False\nmp-571055,\"{'Fe': 11.0, 'Mo': 6.0, 'C': 5.0}\",\"('C', 'Fe', 'Mo')\",OTHERS,False\nmp-1219723,\"{'Pr': 1.0, 'Th': 1.0, 'C': 1.0, 'N': 1.0}\",\"('C', 'N', 'Pr', 'Th')\",OTHERS,False\nmp-1183940,\"{'Cs': 6.0, 'K': 2.0}\",\"('Cs', 'K')\",OTHERS,False\nmp-756426,\"{'Zr': 2.0, 'Nb': 2.0, 'O': 8.0}\",\"('Nb', 'O', 'Zr')\",OTHERS,False\nmp-1097154,\"{'Y': 2.0, 'Hg': 1.0, 'Au': 1.0}\",\"('Au', 'Hg', 'Y')\",OTHERS,False\nmp-760798,\"{'Li': 8.0, 'Cu': 4.0, 'F': 20.0}\",\"('Cu', 'F', 'Li')\",OTHERS,False\nmp-1076037,\"{'Eu': 4.0, 'Ti': 4.0, 'O': 10.0}\",\"('Eu', 'O', 'Ti')\",OTHERS,False\nmp-1020020,\"{'Li': 8.0, 'N': 1.0, 'O': 3.0}\",\"('Li', 'N', 'O')\",OTHERS,False\nmp-27957,\"{'O': 8.0, 'Ni': 2.0, 'Ba': 6.0}\",\"('Ba', 'Ni', 'O')\",OTHERS,False\nmp-1224124,\"{'In': 4.0, 'P': 6.0, 'Pb': 2.0, 'O': 23.0}\",\"('In', 'O', 'P', 'Pb')\",OTHERS,False\nmp-1212113,\"{'I': 8.0, 'N': 12.0}\",\"('I', 'N')\",OTHERS,False\nmp-1193402,\"{'Eu': 6.0, 'Ga': 8.0, 'Ge': 12.0}\",\"('Eu', 'Ga', 'Ge')\",OTHERS,False\nmp-1222094,\"{'Mg': 4.0, 'Te': 3.0, 'Se': 1.0}\",\"('Mg', 'Se', 'Te')\",OTHERS,False\nmp-1939,\"{'Ni': 4.0, 'Er': 2.0}\",\"('Er', 'Ni')\",OTHERS,False\nmp-542817,\"{'U': 8.0, 'Pt': 8.0}\",\"('Pt', 'U')\",OTHERS,False\nmp-1037497,\"{'Mg': 30.0, 'Zn': 1.0, 'Co': 1.0, 'O': 32.0}\",\"('Co', 'Mg', 'O', 'Zn')\",OTHERS,False\nmp-1174772,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-541111,\"{'Ga': 4.0, 'Al': 4.0, 'Cl': 16.0}\",\"('Al', 'Cl', 'Ga')\",OTHERS,False\nmp-973631,\"{'Lu': 2.0, 'Al': 1.0, 'Ru': 1.0}\",\"('Al', 'Lu', 'Ru')\",OTHERS,False\nZn 77 Sc 7 Tm 9 Fe 7,\"{'Zn': 77.0, 'Sc': 7.0, 'Tm': 9.0, 'Fe': 7.0}\",\"('Fe', 'Sc', 'Tm', 'Zn')\",QC,False\nmp-1220274,\"{'Nd': 2.0, 'Y': 1.0}\",\"('Nd', 'Y')\",OTHERS,False\nmp-1176630,\"{'Li': 4.0, 'Mn': 4.0, 'F': 12.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-1174881,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1246137,\"{'Sr': 32.0, 'Mn': 16.0, 'N': 32.0}\",\"('Mn', 'N', 'Sr')\",OTHERS,False\nmp-1035244,\"{'Mg': 14.0, 'Cu': 1.0, 'C': 1.0, 'O': 16.0}\",\"('C', 'Cu', 'Mg', 'O')\",OTHERS,False\nmp-1176247,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-695948,\"{'P': 12.0, 'H': 48.0, 'S': 12.0, 'N': 12.0, 'O': 24.0}\",\"('H', 'N', 'O', 'P', 'S')\",OTHERS,False\nmp-556303,\"{'Cu': 2.0, 'Bi': 4.0, 'Se': 8.0, 'O': 24.0}\",\"('Bi', 'Cu', 'O', 'Se')\",OTHERS,False\nmp-504263,\"{'Li': 14.0, 'Co': 9.0, 'P': 16.0, 'O': 56.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,False\nmp-779434,\"{'Li': 20.0, 'La': 12.0, 'Nb': 8.0, 'O': 48.0}\",\"('La', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-757136,\"{'Li': 2.0, 'Co': 3.0, 'Sn': 1.0, 'O': 8.0}\",\"('Co', 'Li', 'O', 'Sn')\",OTHERS,False\nmp-1032467,\"{'Li': 1.0, 'Mg': 6.0, 'Fe': 1.0, 'O': 8.0}\",\"('Fe', 'Li', 'Mg', 'O')\",OTHERS,False\nmp-1184081,\"{'Er': 2.0, 'Ru': 1.0, 'Au': 1.0}\",\"('Au', 'Er', 'Ru')\",OTHERS,False\nmp-780624,\"{'V': 6.0, 'O': 5.0, 'F': 19.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-570584,\"{'Ta': 2.0, 'Si': 4.0, 'H': 70.0, 'C': 24.0, 'N': 8.0}\",\"('C', 'H', 'N', 'Si', 'Ta')\",OTHERS,False\nmp-18560,\"{'O': 16.0, 'F': 4.0, 'P': 4.0, 'Np': 4.0}\",\"('F', 'Np', 'O', 'P')\",OTHERS,False\nmp-1245128,\"{'Mg': 40.0, 'O': 40.0}\",\"('Mg', 'O')\",OTHERS,False\nmp-1154546,\"{'Ca': 4.0, 'Si': 16.0, 'Sn': 4.0, 'O': 40.0}\",\"('Ca', 'O', 'Si', 'Sn')\",OTHERS,False\nmp-1223844,\"{'In': 2.0, 'Sb': 1.0, 'As': 1.0}\",\"('As', 'In', 'Sb')\",OTHERS,False\nmvc-8814,\"{'Ti': 4.0, 'Zn': 2.0, 'P': 6.0, 'O': 24.0}\",\"('O', 'P', 'Ti', 'Zn')\",OTHERS,False\nmp-9972,\"{'Si': 2.0, 'Y': 2.0}\",\"('Si', 'Y')\",OTHERS,False\nmp-1073692,\"{'Mg': 6.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1030535,\"{'Mo': 2.0, 'W': 2.0, 'Se': 6.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-30977,\"{'H': 48.0, 'B': 40.0, 'Br': 8.0}\",\"('B', 'Br', 'H')\",OTHERS,False\nmp-554909,\"{'Ba': 6.0, 'Mg': 2.0, 'Ir': 4.0, 'O': 18.0}\",\"('Ba', 'Ir', 'Mg', 'O')\",OTHERS,False\nmp-1216804,\"{'Tl': 2.0, 'V': 6.0, 'Cd': 8.0, 'O': 24.0}\",\"('Cd', 'O', 'Tl', 'V')\",OTHERS,False\nmp-1184464,\"{'Eu': 2.0, 'Zn': 1.0, 'In': 1.0}\",\"('Eu', 'In', 'Zn')\",OTHERS,False\nmp-20726,\"{'Ca': 4.0, 'Sr': 4.0, 'Sn': 4.0}\",\"('Ca', 'Sn', 'Sr')\",OTHERS,False\nmp-560710,\"{'Cs': 2.0, 'Tl': 1.0, 'Mo': 1.0, 'F': 6.0}\",\"('Cs', 'F', 'Mo', 'Tl')\",OTHERS,False\nmp-5893,\"{'O': 3.0, 'Si': 1.0, 'Ca': 1.0}\",\"('Ca', 'O', 'Si')\",OTHERS,False\nmp-759285,\"{'Li': 4.0, 'Fe': 7.0, 'O': 2.0, 'F': 14.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-755738,\"{'Rb': 8.0, 'O': 4.0}\",\"('O', 'Rb')\",OTHERS,False\nmp-772636,\"{'Na': 2.0, 'Li': 10.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'Na', 'O', 'P')\",OTHERS,False\nmp-774649,\"{'V': 3.0, 'Ni': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Ni', 'O', 'P', 'V')\",OTHERS,False\nmp-553968,\"{'Mo': 8.0, 'P': 8.0, 'Cl': 40.0, 'O': 24.0}\",\"('Cl', 'Mo', 'O', 'P')\",OTHERS,False\nmp-42255,\"{'Ca': 2.0, 'F': 2.0, 'Na': 2.0, 'Nb': 4.0, 'O': 12.0}\",\"('Ca', 'F', 'Na', 'Nb', 'O')\",OTHERS,False\nmp-1094096,\"{'Ni': 4.0, 'O': 3.0}\",\"('Ni', 'O')\",OTHERS,False\nmp-1217321,\"{'Th': 2.0, 'Fe': 1.0, 'Si': 3.0}\",\"('Fe', 'Si', 'Th')\",OTHERS,False\nmp-1202377,\"{'Zr': 4.0, 'Te': 8.0, 'Br': 4.0, 'O': 22.0}\",\"('Br', 'O', 'Te', 'Zr')\",OTHERS,False\nmp-1094407,\"{'Y': 6.0, 'Mg': 6.0}\",\"('Mg', 'Y')\",OTHERS,False\nmp-762515,\"{'Li': 12.0, 'Cu': 18.0, 'C': 18.0, 'O': 54.0}\",\"('C', 'Cu', 'Li', 'O')\",OTHERS,False\nmp-1196505,\"{'Na': 18.0, 'Fe': 2.0, 'Mo': 12.0, 'O': 48.0}\",\"('Fe', 'Mo', 'Na', 'O')\",OTHERS,False\nmp-866517,\"{'Ce': 6.0, 'Mg': 2.0, 'Al': 2.0, 'S': 14.0}\",\"('Al', 'Ce', 'Mg', 'S')\",OTHERS,False\nAg 42 In 45 Ca 13,\"{'Ag': 42.0, 'In': 45.0, 'Ca': 13.0}\",\"('Ag', 'Ca', 'In')\",AC,False\nmp-13573,\"{'Si': 7.0, 'Sc': 5.0, 'Pt': 9.0}\",\"('Pt', 'Sc', 'Si')\",OTHERS,False\nmp-1222550,\"{'Mg': 4.0, 'Fe': 14.0, 'O': 24.0}\",\"('Fe', 'Mg', 'O')\",OTHERS,False\nmp-1227581,\"{'Cd': 2.0, 'Cu': 10.0, 'Sb': 4.0, 'S': 13.0}\",\"('Cd', 'Cu', 'S', 'Sb')\",OTHERS,False\nmp-1009652,\"{'Rh': 1.0, 'C': 1.0}\",\"('C', 'Rh')\",OTHERS,False\nmp-1180318,\"{'Na': 8.0, 'P': 8.0, 'O': 28.0}\",\"('Na', 'O', 'P')\",OTHERS,False\nmp-1226733,\"{'Cd': 1.0, 'Hg': 1.0, 'Se': 2.0}\",\"('Cd', 'Hg', 'Se')\",OTHERS,False\nmp-616173,\"{'Ce': 20.0, 'Ni': 4.0, 'Ge': 8.0}\",\"('Ce', 'Ge', 'Ni')\",OTHERS,False\nmp-628,\"{'Co': 2.0, 'Zr': 4.0}\",\"('Co', 'Zr')\",OTHERS,False\nmp-1078567,\"{'Sr': 2.0, 'Bi': 4.0, 'Pd': 4.0}\",\"('Bi', 'Pd', 'Sr')\",OTHERS,False\nmp-765523,\"{'Ca': 7.0, 'Cu': 17.0, 'O': 24.0}\",\"('Ca', 'Cu', 'O')\",OTHERS,False\nmp-17561,\"{'Mn': 2.0, 'Nb': 4.0, 'Zn': 4.0, 'O': 16.0}\",\"('Mn', 'Nb', 'O', 'Zn')\",OTHERS,False\nmp-1175424,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-31249,\"{'O': 22.0, 'Te': 8.0, 'La': 4.0}\",\"('La', 'O', 'Te')\",OTHERS,False\nZn 40 Mg 39.5 Ga 25,\"{'Zn': 40.0, 'Mg': 39.5, 'Ga': 25.0}\",\"('Ga', 'Mg', 'Zn')\",QC,False\nmp-561259,\"{'Na': 12.0, 'Nb': 4.0, 'O': 4.0, 'F': 24.0}\",\"('F', 'Na', 'Nb', 'O')\",OTHERS,False\nmp-1238863,\"{'Ti': 4.0, 'Cr': 4.0, 'Ag': 4.0, 'S': 16.0}\",\"('Ag', 'Cr', 'S', 'Ti')\",OTHERS,False\nmp-1104388,\"{'Y': 9.0, 'Pd': 6.0}\",\"('Pd', 'Y')\",OTHERS,False\nAl 70.5 Mn 16.5 Pd 13,\"{'Al': 70.5, 'Mn': 16.5, 'Pd': 13.0}\",\"('Al', 'Mn', 'Pd')\",QC,False\nmp-6227,\"{'O': 14.0, 'Si': 4.0, 'Ca': 4.0, 'Zn': 2.0}\",\"('Ca', 'O', 'Si', 'Zn')\",OTHERS,False\nmp-979986,\"{'Yb': 2.0, 'Ba': 1.0, 'Ca': 1.0}\",\"('Ba', 'Ca', 'Yb')\",OTHERS,False\nmp-1215708,\"{'Y': 1.0, 'U': 1.0, 'Sb': 2.0}\",\"('Sb', 'U', 'Y')\",OTHERS,False\nmp-1182880,\"{'Al': 1.0, 'Cu': 3.0, 'Hg': 1.0, 'Se': 4.0}\",\"('Al', 'Cu', 'Hg', 'Se')\",OTHERS,False\nmp-1224397,\"{'K': 3.0, 'Ge': 7.0, 'H': 1.0, 'O': 20.0}\",\"('Ge', 'H', 'K', 'O')\",OTHERS,False\nmp-1215485,\"{'Zn': 1.0, 'In': 2.0, 'Ge': 1.0, 'As': 4.0}\",\"('As', 'Ge', 'In', 'Zn')\",OTHERS,False\nmp-1183620,\"{'Ca': 1.0, 'Eu': 3.0}\",\"('Ca', 'Eu')\",OTHERS,False\nmp-1177363,\"{'Li': 4.0, 'Mn': 3.0, 'Sn': 3.0, 'Sb': 2.0, 'O': 16.0}\",\"('Li', 'Mn', 'O', 'Sb', 'Sn')\",OTHERS,False\nmp-1214367,\"{'Ba': 2.0, 'Tb': 2.0, 'Fe': 8.0, 'O': 14.0}\",\"('Ba', 'Fe', 'O', 'Tb')\",OTHERS,False\nmp-1187718,\"{'Y': 2.0, 'Cu': 1.0, 'Os': 1.0}\",\"('Cu', 'Os', 'Y')\",OTHERS,False\nmp-675430,\"{'Sm': 8.0, 'Ag': 4.0, 'Se': 14.0}\",\"('Ag', 'Se', 'Sm')\",OTHERS,False\nmp-1112048,\"{'K': 2.0, 'Ce': 1.0, 'Cu': 1.0, 'I': 6.0}\",\"('Ce', 'Cu', 'I', 'K')\",OTHERS,False\nmp-849291,\"{'Li': 20.0, 'Fe': 12.0, 'F': 56.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-20478,\"{'Si': 2.0, 'Ti': 2.0, 'Lu': 2.0}\",\"('Lu', 'Si', 'Ti')\",OTHERS,False\nmp-1197173,\"{'Pr': 12.0, 'Fe': 26.0, 'Sn': 2.0}\",\"('Fe', 'Pr', 'Sn')\",OTHERS,False\nmp-21099,\"{'O': 8.0, 'S': 2.0, 'K': 2.0, 'Pb': 1.0}\",\"('K', 'O', 'Pb', 'S')\",OTHERS,False\nmp-22433,\"{'Si': 4.0, 'Ir': 4.0, 'Np': 2.0}\",\"('Ir', 'Np', 'Si')\",OTHERS,False\nmp-5517,\"{'P': 2.0, 'Ni': 2.0, 'Tb': 1.0}\",\"('Ni', 'P', 'Tb')\",OTHERS,False\nmp-864931,\"{'Mg': 4.0, 'Co': 8.0}\",\"('Co', 'Mg')\",OTHERS,False\nmp-776654,\"{'Li': 7.0, 'V': 5.0, 'O': 12.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1190013,\"{'Ti': 8.0, 'Ni': 8.0}\",\"('Ni', 'Ti')\",OTHERS,False\nmp-1176150,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1225792,\"{'Er': 5.0, 'P': 12.0, 'Ir': 19.0}\",\"('Er', 'Ir', 'P')\",OTHERS,False\nmp-1192413,\"{'Cs': 2.0, 'In': 2.0, 'Te': 6.0, 'O': 16.0}\",\"('Cs', 'In', 'O', 'Te')\",OTHERS,False\nmp-780338,\"{'Li': 8.0, 'Cr': 8.0, 'S': 16.0, 'O': 64.0}\",\"('Cr', 'Li', 'O', 'S')\",OTHERS,False\nmp-1104185,\"{'Ti': 1.0, 'Tl': 1.0, 'V': 4.0, 'S': 8.0}\",\"('S', 'Ti', 'Tl', 'V')\",OTHERS,False\nmp-1026910,\"{'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-744711,\"{'Zn': 2.0, 'Cr': 2.0, 'H': 56.0, 'C': 12.0, 'N': 24.0, 'Cl': 10.0, 'O': 16.0}\",\"('C', 'Cl', 'Cr', 'H', 'N', 'O', 'Zn')\",OTHERS,False\nmp-1020645,\"{'Na': 8.0, 'N': 1.0, 'O': 3.0}\",\"('N', 'Na', 'O')\",OTHERS,False\nmp-1079819,\"{'Lu': 3.0, 'Al': 3.0, 'Ni': 3.0}\",\"('Al', 'Lu', 'Ni')\",OTHERS,False\nmp-1223512,\"{'K': 1.0, 'Mg': 3.0, 'Al': 1.0, 'Si': 3.0, 'O': 10.0, 'F': 2.0}\",\"('Al', 'F', 'K', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-26785,\"{'Li': 4.0, 'O': 28.0, 'P': 8.0, 'Ni': 4.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-767961,\"{'Ti': 3.0, 'Mn': 2.0, 'P': 6.0, 'W': 1.0, 'O': 24.0}\",\"('Mn', 'O', 'P', 'Ti', 'W')\",OTHERS,False\nmp-752400,\"{'Ce': 4.0, 'Sm': 4.0, 'O': 14.0}\",\"('Ce', 'O', 'Sm')\",OTHERS,False\nmp-611448,{'C': 12.0},\"('C',)\",OTHERS,False\nmp-1186527,\"{'Pm': 6.0, 'Nd': 2.0}\",\"('Nd', 'Pm')\",OTHERS,False\nmp-12532,\"{'P': 1.0, 'S': 4.0, 'K': 1.0, 'Ag': 2.0}\",\"('Ag', 'K', 'P', 'S')\",OTHERS,False\nMn 82 Si 15 Al 3,\"{'Mn': 82.0, 'Si': 15.0, 'Al': 3.0}\",\"('Al', 'Mn', 'Si')\",QC,False\nmp-1225978,\"{'La': 2.0, 'In': 3.0, 'Sn': 3.0}\",\"('In', 'La', 'Sn')\",OTHERS,False\nmp-10837,\"{'F': 28.0, 'Na': 8.0, 'Mg': 4.0, 'In': 4.0}\",\"('F', 'In', 'Mg', 'Na')\",OTHERS,False\nmp-1211485,\"{'La': 12.0, 'Au': 4.0, 'I': 12.0}\",\"('Au', 'I', 'La')\",OTHERS,False\nmp-30051,\"{'C': 4.0, 'Si': 12.0, 'Cl': 28.0}\",\"('C', 'Cl', 'Si')\",OTHERS,False\nmp-767722,\"{'V': 1.0, 'Fe': 1.0, 'P': 4.0, 'O': 14.0}\",\"('Fe', 'O', 'P', 'V')\",OTHERS,False\nAl 65 Cu 20 Fe 15,\"{'Al': 65.0, 'Cu': 20.0, 'Fe': 15.0}\",\"('Al', 'Cu', 'Fe')\",QC,False\nmp-1076424,\"{'Sr': 6.0, 'Ca': 2.0, 'Fe': 8.0, 'O': 24.0}\",\"('Ca', 'Fe', 'O', 'Sr')\",OTHERS,False\nmp-1222533,\"{'Li': 4.0, 'Si': 1.0, 'Ge': 3.0, 'O': 10.0}\",\"('Ge', 'Li', 'O', 'Si')\",OTHERS,False\nmp-861664,\"{'Li': 1.0, 'Tm': 1.0, 'Au': 2.0}\",\"('Au', 'Li', 'Tm')\",OTHERS,False\nmp-1201999,\"{'Y': 40.0, 'Ir': 8.0, 'Br': 72.0}\",\"('Br', 'Ir', 'Y')\",OTHERS,False\nmp-699473,\"{'Li': 4.0, 'B': 24.0, 'H': 52.0, 'O': 14.0}\",\"('B', 'H', 'Li', 'O')\",OTHERS,False\nmp-1147612,\"{'Mg': 1.0, 'Cu': 3.0, 'N': 3.0}\",\"('Cu', 'Mg', 'N')\",OTHERS,False\nmp-778259,\"{'Pr': 8.0, 'Hf': 8.0, 'O': 32.0}\",\"('Hf', 'O', 'Pr')\",OTHERS,False\nmvc-8266,\"{'Ca': 4.0, 'Fe': 4.0, 'Ni': 4.0, 'P': 8.0, 'O': 36.0}\",\"('Ca', 'Fe', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1220987,\"{'Na': 1.0, 'Li': 1.0, 'Mn': 1.0, 'S': 2.0}\",\"('Li', 'Mn', 'Na', 'S')\",OTHERS,False\nmp-1218309,\"{'Sr': 1.0, 'La': 2.0, 'Ce': 1.0, 'Mn': 2.0, 'Cr': 2.0, 'O': 12.0}\",\"('Ce', 'Cr', 'La', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-686311,\"{'Na': 7.0, 'Bi': 3.0, 'P': 12.0, 'Pb': 10.0, 'O': 48.0}\",\"('Bi', 'Na', 'O', 'P', 'Pb')\",OTHERS,False\nmvc-13997,\"{'Al': 2.0, 'V': 2.0, 'O': 6.0}\",\"('Al', 'O', 'V')\",OTHERS,False\nmp-1203517,\"{'Cs': 4.0, 'H': 24.0, 'C': 8.0, 'S': 8.0, 'N': 4.0, 'O': 16.0}\",\"('C', 'Cs', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-1180715,\"{'Na': 12.0, 'As': 4.0, 'H': 64.0, 'S': 16.0, 'O': 32.0}\",\"('As', 'H', 'Na', 'O', 'S')\",OTHERS,False\nmp-1205702,\"{'Co': 1.0, 'Re': 1.0, 'Pb': 2.0, 'O': 6.0}\",\"('Co', 'O', 'Pb', 'Re')\",OTHERS,False\nmp-1197745,\"{'Cs': 2.0, 'Ti': 4.0, 'P': 6.0, 'O': 20.0, 'F': 8.0}\",\"('Cs', 'F', 'O', 'P', 'Ti')\",OTHERS,False\nmp-600190,\"{'La': 4.0, 'H': 96.0, 'C': 12.0, 'N': 12.0, 'Cl': 24.0, 'O': 12.0}\",\"('C', 'Cl', 'H', 'La', 'N', 'O')\",OTHERS,False\nmp-978513,\"{'Sm': 1.0, 'Er': 1.0, 'Mg': 2.0}\",\"('Er', 'Mg', 'Sm')\",OTHERS,False\nmp-771347,\"{'Li': 11.0, 'Ti': 4.0, 'Fe': 9.0, 'O': 32.0}\",\"('Fe', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-669445,\"{'Cu': 2.0, 'Bi': 8.0, 'Pb': 6.0, 'S': 19.0}\",\"('Bi', 'Cu', 'Pb', 'S')\",OTHERS,False\nmp-1174194,\"{'Li': 6.0, 'Mn': 2.0, 'Co': 2.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-541913,\"{'Hg': 1.0, 'Fe': 1.0, 'S': 4.0, 'C': 4.0, 'N': 4.0}\",\"('C', 'Fe', 'Hg', 'N', 'S')\",OTHERS,False\nmp-553919,\"{'Ag': 6.0, 'Mo': 2.0, 'Cl': 1.0, 'O': 7.0, 'F': 3.0}\",\"('Ag', 'Cl', 'F', 'Mo', 'O')\",OTHERS,False\nmp-20922,\"{'C': 1.0, 'Ga': 1.0, 'Dy': 3.0}\",\"('C', 'Dy', 'Ga')\",OTHERS,False\nmp-546079,\"{'C': 2.0, 'O': 6.0, 'Mg': 2.0}\",\"('C', 'Mg', 'O')\",OTHERS,False\nmp-1226134,\"{'Cs': 4.0, 'Tl': 1.0, 'Sb': 1.0, 'Cl': 12.0}\",\"('Cl', 'Cs', 'Sb', 'Tl')\",OTHERS,False\nmp-758100,\"{'Li': 4.0, 'Cu': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-1080525,\"{'Fe': 4.0, 'B': 4.0}\",\"('B', 'Fe')\",OTHERS,False\nmp-1216180,\"{'Yb': 29.0, 'Se': 32.0}\",\"('Se', 'Yb')\",OTHERS,False\nmp-1183876,\"{'Cd': 2.0, 'Hg': 4.0, 'Se': 2.0, 'O': 12.0}\",\"('Cd', 'Hg', 'O', 'Se')\",OTHERS,False\nmp-1186897,\"{'Rb': 1.0, 'Rh': 1.0, 'O': 3.0}\",\"('O', 'Rb', 'Rh')\",OTHERS,False\nmp-1189166,\"{'Tm': 4.0, 'Ge': 4.0, 'Pd': 8.0}\",\"('Ge', 'Pd', 'Tm')\",OTHERS,False\nmp-1211495,\"{'La': 12.0, 'Pt': 4.0, 'I': 12.0}\",\"('I', 'La', 'Pt')\",OTHERS,False\nmp-866282,\"{'Ca': 1.0, 'Th': 1.0, 'Rh': 2.0}\",\"('Ca', 'Rh', 'Th')\",OTHERS,False\nmp-1105483,\"{'Ce': 6.0, 'Sn': 12.0, 'Ru': 2.0}\",\"('Ce', 'Ru', 'Sn')\",OTHERS,False\nmp-1210221,\"{'Na': 4.0, 'W': 4.0, 'O': 15.0}\",\"('Na', 'O', 'W')\",OTHERS,False\nmp-1095484,\"{'Pr': 2.0, 'Al': 8.0, 'Ni': 2.0}\",\"('Al', 'Ni', 'Pr')\",OTHERS,False\nmp-1215302,\"{'Zr': 4.0, 'Al': 4.0, 'Pd': 4.0}\",\"('Al', 'Pd', 'Zr')\",OTHERS,False\nmp-8620,\"{'Si': 10.0, 'Rh': 6.0, 'La': 4.0}\",\"('La', 'Rh', 'Si')\",OTHERS,False\nmp-13494,\"{'Fe': 29.0, 'Nd': 3.0}\",\"('Fe', 'Nd')\",OTHERS,False\nmp-647075,\"{'Zn': 64.0, 'S': 64.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-1112784,\"{'Cs': 2.0, 'K': 1.0, 'Ce': 1.0, 'I': 6.0}\",\"('Ce', 'Cs', 'I', 'K')\",OTHERS,False\nTa 1.6 Te 1,\"{'Ta': 1.6, 'Te': 1.0}\",\"('Ta', 'Te')\",QC,False\nmp-1219622,\"{'Rb': 2.0, 'Li': 2.0, 'Mg': 2.0, 'B': 8.0, 'H': 32.0}\",\"('B', 'H', 'Li', 'Mg', 'Rb')\",OTHERS,False\nmp-1095573,\"{'Nb': 4.0, 'Co': 4.0, 'Si': 4.0}\",\"('Co', 'Nb', 'Si')\",OTHERS,False\nmp-763324,\"{'Li': 2.0, 'Mn': 2.0, 'P': 4.0, 'H': 3.0, 'O': 16.0}\",\"('H', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-697408,\"{'H': 20.0, 'C': 4.0, 'N': 4.0, 'O': 10.0}\",\"('C', 'H', 'N', 'O')\",OTHERS,False\nmp-1222651,\"{'Li': 2.0, 'Mg': 1.0, 'Ge': 1.0}\",\"('Ge', 'Li', 'Mg')\",OTHERS,False\nmp-11713,\"{'C': 5.0, 'Si': 5.0}\",\"('C', 'Si')\",OTHERS,False\nmp-1184847,\"{'Ho': 1.0, 'Lu': 1.0, 'Ir': 2.0}\",\"('Ho', 'Ir', 'Lu')\",OTHERS,False\nmp-1020627,\"{'Sr': 4.0, 'Li': 4.0, 'Al': 12.0, 'N': 16.0}\",\"('Al', 'Li', 'N', 'Sr')\",OTHERS,False\nmp-1210310,\"{'Rb': 4.0, 'Pr': 4.0, 'S': 8.0, 'O': 48.0}\",\"('O', 'Pr', 'Rb', 'S')\",OTHERS,False\nmp-1220011,\"{'P': 6.0, 'N': 6.0, 'O': 6.0}\",\"('N', 'O', 'P')\",OTHERS,False\nmp-755266,\"{'Li': 4.0, 'Ti': 3.0, 'O': 8.0}\",\"('Li', 'O', 'Ti')\",OTHERS,False\nmp-1247036,\"{'Mg': 2.0, 'Ti': 3.0, 'Cr': 1.0, 'S': 8.0}\",\"('Cr', 'Mg', 'S', 'Ti')\",OTHERS,False\nmp-1246298,\"{'Sr': 8.0, 'Ru': 2.0, 'N': 8.0}\",\"('N', 'Ru', 'Sr')\",OTHERS,False\nmp-7007,\"{'Se': 2.0, 'Nb': 1.0}\",\"('Nb', 'Se')\",OTHERS,False\nmp-1215917,\"{'Zr': 16.0, 'Ni': 4.0, 'Mo': 4.0}\",\"('Mo', 'Ni', 'Zr')\",OTHERS,False\nmp-1175812,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-30971,\"{'Cl': 4.0, 'Cu': 4.0, 'Te': 8.0}\",\"('Cl', 'Cu', 'Te')\",OTHERS,False\nmp-1221774,\"{'Mn': 2.0, 'Cr': 2.0, 'Te': 4.0}\",\"('Cr', 'Mn', 'Te')\",OTHERS,False\nmp-1204384,\"{'Ag': 4.0, 'H': 40.0, 'S': 32.0, 'N': 32.0, 'Cl': 4.0, 'O': 24.0}\",\"('Ag', 'Cl', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-866141,\"{'Ti': 1.0, 'Fe': 2.0, 'Si': 1.0}\",\"('Fe', 'Si', 'Ti')\",OTHERS,False\nmp-1238823,\"{'Cs': 4.0, 'Cr': 8.0, 'S': 16.0}\",\"('Cr', 'Cs', 'S')\",OTHERS,False\nmp-1096050,\"{'Mg': 1.0, 'Al': 1.0, 'Pt': 2.0}\",\"('Al', 'Mg', 'Pt')\",OTHERS,False\nmp-27211,\"{'F': 13.0, 'K': 1.0, 'Sb': 4.0}\",\"('F', 'K', 'Sb')\",OTHERS,False\nmp-30542,\"{'P': 32.0, 'Ni': 8.0, 'W': 2.0}\",\"('Ni', 'P', 'W')\",OTHERS,False\nmp-27734,\"{'Cr': 6.0, 'Br': 18.0}\",\"('Br', 'Cr')\",OTHERS,False\nmp-1196152,\"{'Y': 4.0, 'B': 12.0, 'H': 96.0, 'N': 16.0}\",\"('B', 'H', 'N', 'Y')\",OTHERS,False\nmp-768492,\"{'Li': 8.0, 'Ti': 1.0, 'Mn': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'Mn', 'O', 'P', 'Ti')\",OTHERS,False\nCd 65 Mg 20 Tm 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Tm': 15.0}\",\"('Cd', 'Mg', 'Tm')\",QC,False\nmp-1214538,\"{'Ba': 8.0, 'Na': 8.0, 'Ga': 8.0, 'F': 48.0}\",\"('Ba', 'F', 'Ga', 'Na')\",OTHERS,False\nmvc-932,\"{'Ba': 1.0, 'Zn': 1.0, 'Cr': 4.0, 'O': 8.0}\",\"('Ba', 'Cr', 'O', 'Zn')\",OTHERS,False\nmp-1013713,\"{'Ba': 3.0, 'Bi': 1.0, 'P': 1.0}\",\"('Ba', 'Bi', 'P')\",OTHERS,False\nmp-1211986,\"{'K': 8.0, 'Hg': 12.0, 'S': 16.0}\",\"('Hg', 'K', 'S')\",OTHERS,False\nmp-1270,\"{'S': 12.0, 'Dy': 8.0}\",\"('Dy', 'S')\",OTHERS,False\nmp-570598,\"{'Sr': 2.0, 'Si': 14.0, 'N': 20.0}\",\"('N', 'Si', 'Sr')\",OTHERS,False\nmp-8258,\"{'Al': 8.0, 'S': 14.0, 'Ba': 2.0}\",\"('Al', 'Ba', 'S')\",OTHERS,False\nmp-1017631,\"{'Sc': 1.0, 'B': 1.0, 'Pd': 3.0}\",\"('B', 'Pd', 'Sc')\",OTHERS,False\nmp-1202872,\"{'K': 8.0, 'B': 8.0, 'C': 8.0, 'N': 8.0, 'F': 24.0}\",\"('B', 'C', 'F', 'K', 'N')\",OTHERS,False\nCd 84 Yb 16,\"{'Cd': 84.0, 'Yb': 16.0}\",\"('Cd', 'Yb')\",QC,False\nmp-1174179,\"{'Li': 8.0, 'Co': 6.0, 'O': 14.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-24473,\"{'H': 16.0, 'Be': 4.0, 'N': 4.0, 'O': 16.0, 'P': 4.0}\",\"('Be', 'H', 'N', 'O', 'P')\",OTHERS,False\nmvc-4358,\"{'Mg': 4.0, 'Ta': 2.0, 'Cr': 2.0, 'O': 12.0}\",\"('Cr', 'Mg', 'O', 'Ta')\",OTHERS,False\nmp-22916,\"{'Na': 1.0, 'Br': 1.0}\",\"('Br', 'Na')\",OTHERS,False\nmp-760269,\"{'Li': 10.0, 'Fe': 4.0, 'B': 4.0, 'O': 16.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-582819,{'Pu': 8.0},\"('Pu',)\",OTHERS,False\nmp-1193528,\"{'Ca': 2.0, 'I': 4.0, 'O': 24.0}\",\"('Ca', 'I', 'O')\",OTHERS,False\nmp-557821,\"{'Ca': 6.0, 'Cr': 6.0, 'P': 8.0, 'O': 32.0}\",\"('Ca', 'Cr', 'O', 'P')\",OTHERS,False\nmp-1188244,\"{'Lu': 8.0, 'Re': 4.0, 'C': 8.0}\",\"('C', 'Lu', 'Re')\",OTHERS,False\nmp-720765,\"{'H': 12.0, 'S': 4.0, 'N': 4.0, 'O': 16.0}\",\"('H', 'N', 'O', 'S')\",OTHERS,False\nmp-1211808,\"{'K': 6.0, 'Na': 14.0, 'Tl': 18.0, 'Hg': 1.0}\",\"('Hg', 'K', 'Na', 'Tl')\",OTHERS,False\nmp-1094575,\"{'Li': 6.0, 'Mg': 6.0}\",\"('Li', 'Mg')\",OTHERS,False\nmp-1238861,\"{'Ti': 2.0, 'Cr': 2.0, 'Cu': 2.0, 'S': 8.0}\",\"('Cr', 'Cu', 'S', 'Ti')\",OTHERS,False\nmp-1195212,\"{'Rb': 16.0, 'Si': 40.0, 'Ni': 8.0, 'O': 96.0}\",\"('Ni', 'O', 'Rb', 'Si')\",OTHERS,False\nmp-1211727,\"{'K': 2.0, 'Rb': 1.0, 'Yb': 1.0, 'V': 2.0, 'O': 8.0}\",\"('K', 'O', 'Rb', 'V', 'Yb')\",OTHERS,False\nmp-18150,\"{'O': 24.0, 'P': 6.0, 'K': 9.0, 'Lu': 3.0}\",\"('K', 'Lu', 'O', 'P')\",OTHERS,False\nmp-758196,\"{'Mg': 9.0, 'As': 6.0, 'O': 24.0}\",\"('As', 'Mg', 'O')\",OTHERS,False\nmp-1208360,\"{'Tb': 2.0, 'Tl': 2.0, 'W': 4.0, 'O': 16.0}\",\"('O', 'Tb', 'Tl', 'W')\",OTHERS,False\nmp-829,\"{'Al': 1.0, 'Pd': 1.0}\",\"('Al', 'Pd')\",OTHERS,False\nmp-1185776,\"{'Mg': 2.0, 'Ir': 2.0, 'O': 5.0}\",\"('Ir', 'Mg', 'O')\",OTHERS,False\nmp-1106254,\"{'La': 2.0, 'Lu': 6.0, 'S': 12.0}\",\"('La', 'Lu', 'S')\",OTHERS,False\nmp-510713,\"{'O': 16.0, 'K': 6.0, 'Mn': 4.0}\",\"('K', 'Mn', 'O')\",OTHERS,False\nmvc-3064,\"{'Ba': 2.0, 'Tl': 2.0, 'Zn': 2.0, 'Fe': 3.0, 'O': 10.0}\",\"('Ba', 'Fe', 'O', 'Tl', 'Zn')\",OTHERS,False\nmp-1208140,\"{'Tl': 6.0, 'Ge': 2.0, 'F': 14.0}\",\"('F', 'Ge', 'Tl')\",OTHERS,False\nmp-23149,\"{'K': 8.0, 'Al': 6.0, 'Si': 6.0, 'Cl': 2.0, 'O': 24.0}\",\"('Al', 'Cl', 'K', 'O', 'Si')\",OTHERS,False\nmp-1079801,\"{'Nb': 1.0, 'Ni': 3.0, 'H': 2.0, 'C': 2.0}\",\"('C', 'H', 'Nb', 'Ni')\",OTHERS,False\nmp-1210861,\"{'Na': 8.0, 'Si': 24.0, 'O': 48.0}\",\"('Na', 'O', 'Si')\",OTHERS,False\nmp-756093,\"{'Na': 12.0, 'Nb': 1.0, 'O': 7.0}\",\"('Na', 'Nb', 'O')\",OTHERS,False\nmp-1105556,\"{'La': 1.0, 'As': 12.0, 'Os': 4.0}\",\"('As', 'La', 'Os')\",OTHERS,False\nmp-9266,\"{'Na': 12.0, 'S': 8.0, 'Fe': 2.0}\",\"('Fe', 'Na', 'S')\",OTHERS,False\nmp-754157,\"{'Al': 2.0, 'In': 2.0, 'O': 6.0}\",\"('Al', 'In', 'O')\",OTHERS,False\nmp-1205879,\"{'Pr': 3.0, 'Cd': 3.0, 'Au': 3.0}\",\"('Au', 'Cd', 'Pr')\",OTHERS,False\nmp-1175375,\"{'Li': 7.0, 'Mn': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-769567,\"{'Li': 10.0, 'Ti': 11.0, 'Cr': 9.0, 'O': 40.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-3312,\"{'Se': 8.0, 'Sb': 4.0, 'Cs': 2.0}\",\"('Cs', 'Sb', 'Se')\",OTHERS,False\nmp-554736,\"{'Ca': 2.0, 'B': 4.0, 'H': 24.0, 'O': 20.0}\",\"('B', 'Ca', 'H', 'O')\",OTHERS,False\nmp-1099277,\"{'Li': 1.0, 'Mg': 6.0, 'Fe': 1.0}\",\"('Fe', 'Li', 'Mg')\",OTHERS,False\nmp-850900,\"{'Li': 6.0, 'V': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1796,\"{'Te': 6.0, 'Tl': 10.0}\",\"('Te', 'Tl')\",OTHERS,False\nmp-568709,\"{'Dy': 8.0, 'Ni': 28.0, 'Sn': 12.0}\",\"('Dy', 'Ni', 'Sn')\",OTHERS,False\nmp-1097565,\"{'Hf': 2.0, 'Re': 1.0, 'Ru': 1.0}\",\"('Hf', 'Re', 'Ru')\",OTHERS,False\nmp-1216037,\"{'Zn': 3.0, 'Rh': 2.0, 'C': 12.0, 'N': 12.0}\",\"('C', 'N', 'Rh', 'Zn')\",OTHERS,False\nmp-1182211,\"{'Ba': 2.0, 'Yb': 2.0, 'Co': 8.0, 'O': 14.0}\",\"('Ba', 'Co', 'O', 'Yb')\",OTHERS,False\nmp-10992,\"{'Cu': 2.0, 'As': 4.0, 'Dy': 2.0}\",\"('As', 'Cu', 'Dy')\",OTHERS,False\nmp-532650,\"{'Ca': 8.0, 'Mn': 6.0, 'B': 6.0, 'C': 2.0, 'O': 30.0}\",\"('B', 'C', 'Ca', 'Mn', 'O')\",OTHERS,False\nmp-31508,\"{'K': 4.0, 'Br': 20.0, 'Pb': 8.0}\",\"('Br', 'K', 'Pb')\",OTHERS,False\nmp-554370,\"{'Ti': 2.0, 'S': 2.0, 'Cl': 12.0, 'O': 2.0}\",\"('Cl', 'O', 'S', 'Ti')\",OTHERS,False\nmp-1228875,\"{'Cs': 2.0, 'Ni': 2.0, 'P': 2.0}\",\"('Cs', 'Ni', 'P')\",OTHERS,False\nmp-1147714,\"{'P': 8.0, 'S': 12.0}\",\"('P', 'S')\",OTHERS,False\nmp-568135,\"{'Cs': 8.0, 'Sc': 12.0, 'C': 2.0, 'Cl': 26.0}\",\"('C', 'Cl', 'Cs', 'Sc')\",OTHERS,False\nmp-762236,\"{'Al': 6.0, 'Cr': 2.0, 'O': 12.0}\",\"('Al', 'Cr', 'O')\",OTHERS,False\nmp-1078913,\"{'Rb': 3.0, 'Ce': 1.0, 'F': 6.0}\",\"('Ce', 'F', 'Rb')\",OTHERS,False\nmp-558346,\"{'Nd': 4.0, 'I': 12.0, 'O': 36.0}\",\"('I', 'Nd', 'O')\",OTHERS,False\nmp-761234,\"{'Li': 3.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1226091,\"{'Cr': 8.0, 'Cu': 3.0, 'Ni': 1.0, 'S': 16.0}\",\"('Cr', 'Cu', 'Ni', 'S')\",OTHERS,False\nmp-976818,\"{'Ni': 3.0, 'Au': 1.0}\",\"('Au', 'Ni')\",OTHERS,False\nmvc-3244,\"{'Mg': 2.0, 'Cr': 2.0, 'P': 2.0, 'O': 10.0}\",\"('Cr', 'Mg', 'O', 'P')\",OTHERS,False\nmp-1213043,\"{'Cs': 1.0, 'Mg': 1.0, 'As': 1.0, 'H': 6.0, 'O': 4.0}\",\"('As', 'Cs', 'H', 'Mg', 'O')\",OTHERS,False\nmp-1076751,\"{'K': 4.0, 'Na': 4.0, 'Nb': 1.0, 'W': 7.0, 'O': 24.0}\",\"('K', 'Na', 'Nb', 'O', 'W')\",OTHERS,False\nmp-571225,\"{'Cd': 7.0, 'I': 14.0}\",\"('Cd', 'I')\",OTHERS,False\nmp-707816,\"{'H': 10.0, 'C': 2.0, 'S': 2.0, 'N': 4.0, 'Cl': 2.0, 'O': 8.0}\",\"('C', 'Cl', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-768682,\"{'Rb': 10.0, 'Fe': 2.0, 'O': 8.0}\",\"('Fe', 'O', 'Rb')\",OTHERS,False\nmp-1205657,\"{'Gd': 4.0, 'Mg': 2.0, 'Ni': 4.0}\",\"('Gd', 'Mg', 'Ni')\",OTHERS,False\nmp-570037,\"{'Co': 6.0, 'Au': 12.0, 'C': 24.0, 'N': 24.0}\",\"('Au', 'C', 'Co', 'N')\",OTHERS,False\nmp-1178244,\"{'Fe': 18.0, 'O': 18.0, 'F': 18.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-776035,\"{'Li': 18.0, 'Cu': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-973921,\"{'Lu': 2.0, 'Ni': 12.0, 'As': 7.0}\",\"('As', 'Lu', 'Ni')\",OTHERS,False\nmp-866121,\"{'V': 3.0, 'Os': 1.0}\",\"('Os', 'V')\",OTHERS,False\nmp-1213994,\"{'Ca': 2.0, 'H': 12.0, 'Pt': 2.0, 'O': 12.0}\",\"('Ca', 'H', 'O', 'Pt')\",OTHERS,False\nmp-611378,\"{'Ba': 1.0, 'Lu': 1.0, 'Fe': 1.0, 'Cu': 1.0, 'O': 5.0}\",\"('Ba', 'Cu', 'Fe', 'Lu', 'O')\",OTHERS,False\nmp-709921,\"{'Cs': 4.0, 'Na': 8.0, 'Cu': 4.0, 'Si': 24.0, 'H': 8.0, 'O': 62.0}\",\"('Cs', 'Cu', 'H', 'Na', 'O', 'Si')\",OTHERS,False\nmp-561257,\"{'Li': 2.0, 'Pr': 4.0, 'C': 4.0, 'N': 8.0, 'F': 6.0}\",\"('C', 'F', 'Li', 'N', 'Pr')\",OTHERS,False\nmp-1186256,\"{'Nd': 2.0, 'Tl': 1.0, 'Ag': 1.0}\",\"('Ag', 'Nd', 'Tl')\",OTHERS,False\nmp-1199071,\"{'Pr': 2.0, 'Cd': 40.0, 'Pd': 4.0}\",\"('Cd', 'Pd', 'Pr')\",OTHERS,False\nmp-1209430,\"{'Pr': 3.0, 'P': 6.0, 'Pd': 20.0}\",\"('P', 'Pd', 'Pr')\",OTHERS,False\nmp-1219697,\"{'Rb': 3.0, 'Ag': 9.0, 'Sb': 4.0, 'S': 12.0}\",\"('Ag', 'Rb', 'S', 'Sb')\",OTHERS,False\nmp-755205,\"{'Zr': 8.0, 'N': 8.0, 'O': 4.0}\",\"('N', 'O', 'Zr')\",OTHERS,False\nmp-1228011,\"{'Ba': 1.0, 'La': 2.0, 'Fe': 2.0, 'O': 5.0, 'F': 4.0}\",\"('Ba', 'F', 'Fe', 'La', 'O')\",OTHERS,False\nmp-1703,\"{'Zn': 1.0, 'Yb': 1.0}\",\"('Yb', 'Zn')\",OTHERS,False\nmp-754903,\"{'Y': 2.0, 'B': 6.0, 'O': 12.0}\",\"('B', 'O', 'Y')\",OTHERS,False\nAl 73.2 Co 26.8,\"{'Al': 73.2, 'Co': 26.8}\",\"('Al', 'Co')\",AC,False\nmp-761223,\"{'Mn': 6.0, 'O': 2.0, 'F': 16.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-698125,\"{'Np': 2.0, 'H': 32.0, 'C': 8.0, 'N': 16.0, 'Cl': 2.0, 'O': 12.0}\",\"('C', 'Cl', 'H', 'N', 'Np', 'O')\",OTHERS,False\nmp-1213423,\"{'Eu': 16.0, 'As': 24.0}\",\"('As', 'Eu')\",OTHERS,False\nmp-776063,\"{'Li': 16.0, 'Mn': 8.0, 'P': 8.0, 'O': 32.0, 'F': 8.0}\",\"('F', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1182253,\"{'Ca': 2.0, 'N': 4.0, 'O': 16.0}\",\"('Ca', 'N', 'O')\",OTHERS,False\nmp-1225717,\"{'Cu': 3.0, 'N': 1.0}\",\"('Cu', 'N')\",OTHERS,False\nmp-1186395,\"{'Pa': 1.0, 'Hg': 1.0, 'O': 3.0}\",\"('Hg', 'O', 'Pa')\",OTHERS,False\nmp-1095090,\"{'Ba': 1.0, 'Mn': 2.0, 'O': 5.0}\",\"('Ba', 'Mn', 'O')\",OTHERS,False\nmp-1207267,\"{'Pr': 4.0, 'Co': 1.0, 'I': 5.0}\",\"('Co', 'I', 'Pr')\",OTHERS,False\nmp-1225403,\"{'Dy': 2.0, 'Cu': 6.0, 'Se': 6.0}\",\"('Cu', 'Dy', 'Se')\",OTHERS,False\nmp-555983,\"{'Er': 8.0, 'Si': 4.0, 'O': 20.0}\",\"('Er', 'O', 'Si')\",OTHERS,False\nmp-1215741,\"{'Zn': 2.0, 'Cr': 3.0, 'Fe': 1.0, 'O': 8.0}\",\"('Cr', 'Fe', 'O', 'Zn')\",OTHERS,False\nmvc-9983,\"{'Mg': 2.0, 'Mo': 4.0, 'O': 8.0}\",\"('Mg', 'Mo', 'O')\",OTHERS,False\nmp-21625,\"{'Co': 6.0, 'Ga': 18.0, 'Y': 4.0}\",\"('Co', 'Ga', 'Y')\",OTHERS,False\nmp-759513,\"{'Li': 14.0, 'Ni': 2.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-1211804,\"{'K': 6.0, 'Na': 14.0, 'Tl': 18.0, 'Cd': 1.0}\",\"('Cd', 'K', 'Na', 'Tl')\",OTHERS,False\nmp-27684,\"{'O': 6.0, 'Tl': 8.0}\",\"('O', 'Tl')\",OTHERS,False\nmp-1226714,\"{'Ce': 1.0, 'Er': 4.0, 'S': 7.0}\",\"('Ce', 'Er', 'S')\",OTHERS,False\nmp-21011,\"{'As': 6.0, 'Ce': 8.0}\",\"('As', 'Ce')\",OTHERS,False\nmp-680415,\"{'Os': 6.0, 'C': 20.0, 'Br': 4.0, 'O': 20.0}\",\"('Br', 'C', 'O', 'Os')\",OTHERS,False\nmp-759653,\"{'Li': 4.0, 'Bi': 8.0, 'P': 4.0, 'O': 24.0}\",\"('Bi', 'Li', 'O', 'P')\",OTHERS,False\nmp-768795,\"{'Li': 8.0, 'Bi': 8.0, 'B': 16.0, 'O': 40.0}\",\"('B', 'Bi', 'Li', 'O')\",OTHERS,False\nmp-780308,\"{'Li': 5.0, 'Mn': 6.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-12557,\"{'Sr': 2.0, 'Cu': 2.0, 'As': 2.0}\",\"('As', 'Cu', 'Sr')\",OTHERS,False\nmp-707519,\"{'Mg': 16.0, 'Si': 8.0, 'H': 1.0, 'O': 32.0}\",\"('H', 'Mg', 'O', 'Si')\",OTHERS,False\nmvc-11654,\"{'Mn': 4.0, 'Zn': 1.0, 'O': 8.0}\",\"('Mn', 'O', 'Zn')\",OTHERS,False\nmp-1096340,\"{'Na': 1.0, 'Hg': 2.0, 'Bi': 1.0}\",\"('Bi', 'Hg', 'Na')\",OTHERS,False\nmp-1207971,\"{'Tm': 2.0, 'Co': 8.0, 'Ge': 4.0}\",\"('Co', 'Ge', 'Tm')\",OTHERS,False\nmp-1179218,\"{'Sr': 2.0, 'Br': 2.0, 'O': 10.0}\",\"('Br', 'O', 'Sr')\",OTHERS,False\nmp-1212562,\"{'Na': 4.0, 'Cr': 4.0, 'H': 48.0, 'S': 8.0, 'O': 32.0}\",\"('Cr', 'H', 'Na', 'O', 'S')\",OTHERS,False\nmp-1229210,\"{'Ba': 10.0, 'Er': 5.0, 'Cu': 15.0, 'O': 34.0}\",\"('Ba', 'Cu', 'Er', 'O')\",OTHERS,False\nmp-1246127,\"{'Ca': 6.0, 'Ir': 4.0, 'N': 8.0}\",\"('Ca', 'Ir', 'N')\",OTHERS,False\nmp-850215,\"{'Li': 2.0, 'Ti': 2.0, 'Mn': 2.0, 'O': 8.0}\",\"('Li', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-1245746,\"{'Na': 1.0, 'Sb': 1.0, 'N': 2.0}\",\"('N', 'Na', 'Sb')\",OTHERS,False\nmp-20138,\"{'Pd': 3.0, 'In': 3.0, 'La': 3.0}\",\"('In', 'La', 'Pd')\",OTHERS,False\nmp-1176673,\"{'Na': 10.0, 'Ni': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Na', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1201474,\"{'K': 16.0, 'S': 16.0, 'O': 64.0}\",\"('K', 'O', 'S')\",OTHERS,False\nmp-19917,\"{'Si': 2.0, 'Zr': 2.0, 'Te': 2.0}\",\"('Si', 'Te', 'Zr')\",OTHERS,False\nmp-1180621,\"{'K': 1.0, 'S': 1.0}\",\"('K', 'S')\",OTHERS,False\nmp-607371,\"{'Ru': 2.0, 'N': 4.0}\",\"('N', 'Ru')\",OTHERS,False\nmp-662599,\"{'Ag': 36.0, 'As': 12.0, 'Se': 36.0}\",\"('Ag', 'As', 'Se')\",OTHERS,False\nmp-1097065,\"{'Li': 2.0, 'Hf': 1.0, 'N': 2.0}\",\"('Hf', 'Li', 'N')\",OTHERS,False\nmp-685374,\"{'Ti': 6.0, 'Fe': 10.0, 'O': 24.0}\",\"('Fe', 'O', 'Ti')\",OTHERS,False\nmp-33255,\"{'Ni': 15.0, 'O': 16.0}\",\"('Ni', 'O')\",OTHERS,False\nmp-753451,\"{'Li': 2.0, 'Fe': 4.0, 'P': 4.0, 'H': 2.0, 'O': 16.0}\",\"('Fe', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-974843,\"{'Rb': 3.0, 'Os': 1.0}\",\"('Os', 'Rb')\",OTHERS,False\nmp-998536,\"{'Rb': 4.0, 'Ca': 4.0, 'Br': 12.0}\",\"('Br', 'Ca', 'Rb')\",OTHERS,False\nmp-1211668,\"{'La': 2.0, 'Nb': 16.0, 'O': 28.0}\",\"('La', 'Nb', 'O')\",OTHERS,False\nmp-6239,\"{'O': 48.0, 'Si': 12.0, 'Mn': 12.0, 'Fe': 8.0}\",\"('Fe', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1207622,\"{'Yb': 10.0, 'Pt': 18.0}\",\"('Pt', 'Yb')\",OTHERS,False\nmp-705468,\"{'Li': 6.0, 'Mn': 6.0, 'P': 8.0, 'O': 32.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1186813,\"{'Pu': 3.0, 'Br': 1.0}\",\"('Br', 'Pu')\",OTHERS,False\nmp-1096395,\"{'Li': 1.0, 'Mg': 1.0, 'Pb': 2.0}\",\"('Li', 'Mg', 'Pb')\",OTHERS,False\nmp-1199323,\"{'Th': 4.0, 'P': 8.0, 'H': 8.0, 'C': 4.0, 'O': 32.0}\",\"('C', 'H', 'O', 'P', 'Th')\",OTHERS,False\nmp-28444,\"{'O': 16.0, 'Si': 4.0, 'Fe': 6.0}\",\"('Fe', 'O', 'Si')\",OTHERS,False\nmvc-6475,\"{'Mg': 2.0, 'Ti': 4.0, 'O': 8.0}\",\"('Mg', 'O', 'Ti')\",OTHERS,False\nmp-780146,\"{'Fe': 6.0, 'O': 4.0, 'F': 8.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1219095,\"{'Sm': 2.0, 'Bi': 2.0, 'Ru': 4.0, 'O': 14.0}\",\"('Bi', 'O', 'Ru', 'Sm')\",OTHERS,False\nmp-1175110,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-3569,\"{'Sb': 12.0, 'Nd': 1.0, 'Os': 4.0}\",\"('Nd', 'Os', 'Sb')\",OTHERS,False\nmp-755642,\"{'Li': 6.0, 'V': 2.0, 'S': 8.0}\",\"('Li', 'S', 'V')\",OTHERS,False\nmp-1209956,\"{'Na': 1.0, 'Tb': 1.0, 'Pd': 6.0, 'O': 8.0}\",\"('Na', 'O', 'Pd', 'Tb')\",OTHERS,False\nmp-1220313,\"{'Nd': 2.0, 'Sb': 1.0, 'O': 2.0}\",\"('Nd', 'O', 'Sb')\",OTHERS,False\nmp-2501,\"{'B': 2.0, 'Mo': 4.0}\",\"('B', 'Mo')\",OTHERS,False\nmp-771834,\"{'Tb': 12.0, 'Nb': 4.0, 'O': 28.0}\",\"('Nb', 'O', 'Tb')\",OTHERS,False\nmp-669325,\"{'Te': 2.0, 'W': 2.0, 'Cl': 18.0}\",\"('Cl', 'Te', 'W')\",OTHERS,False\nmp-1079552,\"{'Tb': 2.0, 'Ga': 4.0, 'Ni': 2.0}\",\"('Ga', 'Ni', 'Tb')\",OTHERS,False\nmp-7022,\"{'V': 10.0, 'As': 6.0}\",\"('As', 'V')\",OTHERS,False\nmp-9930,\"{'P': 2.0, 'Se': 2.0, 'U': 2.0}\",\"('P', 'Se', 'U')\",OTHERS,False\nmp-12540,\"{'O': 48.0, 'P': 8.0, 'Zr': 8.0, 'Mo': 4.0}\",\"('Mo', 'O', 'P', 'Zr')\",OTHERS,False\nmp-558786,\"{'Ag': 12.0, 'Ge': 2.0, 'S': 2.0, 'O': 16.0}\",\"('Ag', 'Ge', 'O', 'S')\",OTHERS,False\nmp-25923,\"{'Li': 6.0, 'O': 32.0, 'P': 8.0, 'Mn': 9.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1074028,\"{'Mg': 18.0, 'Si': 10.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1196619,\"{'Ir': 8.0, 'Se': 36.0, 'Cl': 24.0}\",\"('Cl', 'Ir', 'Se')\",OTHERS,False\nmp-1113353,\"{'Cs': 2.0, 'Cu': 1.0, 'Sb': 1.0, 'I': 6.0}\",\"('Cs', 'Cu', 'I', 'Sb')\",OTHERS,False\nmp-8111,\"{'La': 2.0, 'O': 2.0, 'F': 2.0}\",\"('F', 'La', 'O')\",OTHERS,False\nmp-998435,\"{'Cs': 4.0, 'Sc': 4.0, 'Br': 12.0}\",\"('Br', 'Cs', 'Sc')\",OTHERS,False\nmp-504962,\"{'In': 4.0, 'Na': 12.0, 'K': 8.0, 'O': 16.0}\",\"('In', 'K', 'Na', 'O')\",OTHERS,False\nmp-769138,\"{'Dy': 12.0, 'Sb': 12.0, 'O': 42.0}\",\"('Dy', 'O', 'Sb')\",OTHERS,False\nmp-1245714,\"{'Sr': 16.0, 'C': 8.0, 'N': 20.0}\",\"('C', 'N', 'Sr')\",OTHERS,False\nmp-1019796,\"{'K': 8.0, 'P': 4.0, 'O': 14.0}\",\"('K', 'O', 'P')\",OTHERS,False\nmp-1069771,\"{'Rb': 2.0, 'Pd': 1.0, 'Se': 2.0}\",\"('Pd', 'Rb', 'Se')\",OTHERS,False\nmp-2568,\"{'Si': 2.0, 'Y': 1.0}\",\"('Si', 'Y')\",OTHERS,False\nmp-568801,\"{'Pr': 6.0, 'Cu': 2.0, 'Si': 2.0, 'Se': 14.0}\",\"('Cu', 'Pr', 'Se', 'Si')\",OTHERS,False\nmp-755361,\"{'Na': 6.0, 'V': 2.0, 'B': 2.0, 'As': 2.0, 'O': 14.0}\",\"('As', 'B', 'Na', 'O', 'V')\",OTHERS,False\nmp-36329,\"{'O': 4.0, 'U': 1.0, 'Sr': 1.0}\",\"('O', 'Sr', 'U')\",OTHERS,False\nmp-974358,\"{'Ir': 3.0, 'Ru': 1.0}\",\"('Ir', 'Ru')\",OTHERS,False\nmp-766544,\"{'Li': 4.0, 'Mn': 4.0, 'Si': 6.0, 'O': 20.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-26194,\"{'O': 52.0, 'P': 12.0, 'Mo': 8.0}\",\"('Mo', 'O', 'P')\",OTHERS,False\nmp-1030390,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1193254,\"{'Sr': 4.0, 'C': 8.0, 'O': 16.0}\",\"('C', 'O', 'Sr')\",OTHERS,False\nmp-556213,\"{'K': 16.0, 'Mn': 16.0, 'V': 16.0, 'O': 64.0}\",\"('K', 'Mn', 'O', 'V')\",OTHERS,False\nmp-559,\"{'Y': 1.0, 'Pd': 3.0}\",\"('Pd', 'Y')\",OTHERS,False\nmp-867195,\"{'Sr': 1.0, 'Os': 1.0, 'O': 3.0}\",\"('O', 'Os', 'Sr')\",OTHERS,False\nmp-780722,\"{'Y': 6.0, 'N': 2.0, 'O': 5.0}\",\"('N', 'O', 'Y')\",OTHERS,False\nmvc-1326,\"{'Ba': 2.0, 'Y': 2.0, 'W': 8.0, 'O': 14.0}\",\"('Ba', 'O', 'W', 'Y')\",OTHERS,False\nmp-1093905,\"{'Li': 1.0, 'La': 2.0, 'Tl': 1.0}\",\"('La', 'Li', 'Tl')\",OTHERS,False\nmp-1692,\"{'Cu': 2.0, 'O': 2.0}\",\"('Cu', 'O')\",OTHERS,False\nmp-1211502,\"{'La': 10.0, 'B': 6.0, 'O': 26.0}\",\"('B', 'La', 'O')\",OTHERS,False\nmp-1209181,\"{'Rb': 1.0, 'N': 1.0}\",\"('N', 'Rb')\",OTHERS,False\nmp-1223843,\"{'Ho': 1.0, 'Bi': 1.0, 'Te': 3.0}\",\"('Bi', 'Ho', 'Te')\",OTHERS,False\nmp-1204607,\"{'K': 8.0, 'I': 12.0, 'N': 4.0, 'O': 48.0}\",\"('I', 'K', 'N', 'O')\",OTHERS,False\nmp-1074288,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-9571,\"{'Ca': 1.0, 'Zn': 2.0, 'As': 2.0}\",\"('As', 'Ca', 'Zn')\",OTHERS,False\nmp-1112124,\"{'Cs': 2.0, 'Rb': 1.0, 'Pr': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Pr', 'Rb')\",OTHERS,False\nmp-1113404,\"{'Rb': 2.0, 'In': 1.0, 'Cu': 1.0, 'Br': 6.0}\",\"('Br', 'Cu', 'In', 'Rb')\",OTHERS,False\nmp-1217818,\"{'Ta': 1.0, 'V': 1.0, 'B': 4.0}\",\"('B', 'Ta', 'V')\",OTHERS,False\nmp-1209668,\"{'Sr': 6.0, 'H': 10.0, 'Os': 4.0, 'O': 16.0}\",\"('H', 'O', 'Os', 'Sr')\",OTHERS,False\nmp-849432,\"{'Ni': 1.0, 'H': 12.0, 'S': 2.0, 'N': 2.0, 'O': 10.0}\",\"('H', 'N', 'Ni', 'O', 'S')\",OTHERS,False\nmvc-14736,\"{'Y': 4.0, 'W': 4.0, 'O': 12.0}\",\"('O', 'W', 'Y')\",OTHERS,False\nmp-1187413,\"{'Th': 2.0, 'Ag': 6.0}\",\"('Ag', 'Th')\",OTHERS,False\nmp-764769,\"{'Li': 8.0, 'V': 2.0, 'F': 14.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-973498,\"{'In': 3.0, 'Au': 1.0}\",\"('Au', 'In')\",OTHERS,False\nmp-1219700,\"{'Sc': 2.0, 'Mn': 12.0, 'Ga': 1.0, 'Ge': 11.0}\",\"('Ga', 'Ge', 'Mn', 'Sc')\",OTHERS,False\nmp-1183082,\"{'Ac': 3.0, 'Zr': 1.0}\",\"('Ac', 'Zr')\",OTHERS,False\nmp-1193798,\"{'La': 6.0, 'Fe': 2.0, 'W': 2.0, 'S': 6.0, 'O': 12.0}\",\"('Fe', 'La', 'O', 'S', 'W')\",OTHERS,False\nCd 65 Mg 20 Dy 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Dy': 15.0}\",\"('Cd', 'Dy', 'Mg')\",QC,False\nmp-557531,\"{'Pb': 4.0, 'S': 2.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'O', 'Pb', 'S')\",OTHERS,False\nmp-1209816,\"{'Np': 4.0, 'F': 24.0}\",\"('F', 'Np')\",OTHERS,False\nmp-7400,\"{'Na': 2.0, 'Al': 2.0, 'Ge': 2.0}\",\"('Al', 'Ge', 'Na')\",OTHERS,False\nmp-1220782,\"{'Nb': 12.0, 'Ga': 3.0, 'Ge': 1.0}\",\"('Ga', 'Ge', 'Nb')\",OTHERS,False\nmp-1021328,\"{'H': 4.0, 'C': 1.0}\",\"('C', 'H')\",OTHERS,False\nmp-20103,\"{'Tm': 3.0, 'In': 3.0, 'Pt': 3.0}\",\"('In', 'Pt', 'Tm')\",OTHERS,False\nmp-23623,\"{'B': 20.0, 'O': 36.0, 'Br': 4.0, 'Pb': 8.0}\",\"('B', 'Br', 'O', 'Pb')\",OTHERS,False\nmp-1226559,\"{'Co': 3.0, 'Ni': 1.0}\",\"('Co', 'Ni')\",OTHERS,False\nmp-1196645,\"{'Cd': 8.0, 'S': 4.0, 'O': 24.0}\",\"('Cd', 'O', 'S')\",OTHERS,False\nmp-1211992,\"{'K': 18.0, 'Nd': 2.0, 'P': 8.0, 'S': 32.0}\",\"('K', 'Nd', 'P', 'S')\",OTHERS,False\nmp-626112,\"{'H': 28.0, 'N': 4.0, 'O': 24.0}\",\"('H', 'N', 'O')\",OTHERS,False\nmp-1213882,\"{'Ce': 4.0, 'Ta': 4.0, 'O': 18.0}\",\"('Ce', 'O', 'Ta')\",OTHERS,False\nmp-1096146,\"{'Y': 2.0, 'Rh': 1.0, 'Pb': 1.0}\",\"('Pb', 'Rh', 'Y')\",OTHERS,False\nmp-1222785,\"{'La': 1.0, 'Nd': 1.0, 'Al': 4.0}\",\"('Al', 'La', 'Nd')\",OTHERS,False\nmp-557769,\"{'Ca': 8.0, 'H': 16.0, 'C': 16.0, 'O': 40.0}\",\"('C', 'Ca', 'H', 'O')\",OTHERS,False\nmp-1080594,\"{'Dy': 3.0, 'In': 3.0, 'Cu': 3.0}\",\"('Cu', 'Dy', 'In')\",OTHERS,False\nmp-567471,\"{'Hg': 8.0, 'I': 16.0}\",\"('Hg', 'I')\",OTHERS,False\nmp-716814,\"{'Fe': 12.0, 'O': 18.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-759251,\"{'Li': 4.0, 'Sb': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-561315,\"{'Cs': 6.0, 'Al': 2.0, 'Ge': 4.0, 'O': 14.0}\",\"('Al', 'Cs', 'Ge', 'O')\",OTHERS,False\nmp-865928,\"{'Ti': 2.0, 'Tc': 1.0, 'Pt': 1.0}\",\"('Pt', 'Tc', 'Ti')\",OTHERS,False\nmp-35589,\"{'F': 7.0, 'Na': 3.0, 'U': 1.0}\",\"('F', 'Na', 'U')\",OTHERS,False\nmp-1225373,\"{'Dy': 2.0, 'P': 7.0, 'Rh': 12.0}\",\"('Dy', 'P', 'Rh')\",OTHERS,False\nmp-12022,\"{'B': 8.0, 'O': 14.0, 'Hg': 2.0}\",\"('B', 'Hg', 'O')\",OTHERS,False\nmp-27658,\"{'Li': 5.0, 'B': 4.0}\",\"('B', 'Li')\",OTHERS,False\nmp-752549,\"{'Li': 1.0, 'Ag': 1.0, 'F': 2.0}\",\"('Ag', 'F', 'Li')\",OTHERS,False\nmp-9665,\"{'B': 2.0, 'K': 6.0, 'As': 4.0}\",\"('As', 'B', 'K')\",OTHERS,False\nmp-505396,\"{'Pb': 4.0, 'Cs': 4.0, 'Na': 12.0, 'O': 16.0}\",\"('Cs', 'Na', 'O', 'Pb')\",OTHERS,False\nmp-1217591,\"{'Yb': 12.0, 'Cd': 72.0}\",\"('Cd', 'Yb')\",OTHERS,False\nmp-742801,\"{'V': 4.0, 'Cu': 2.0, 'H': 12.0, 'N': 4.0, 'O': 12.0}\",\"('Cu', 'H', 'N', 'O', 'V')\",OTHERS,False\nmp-1185360,\"{'Li': 1.0, 'Mn': 1.0, 'Ir': 2.0}\",\"('Ir', 'Li', 'Mn')\",OTHERS,False\nmp-863436,\"{'Co': 8.0, 'Te': 16.0, 'O': 40.0}\",\"('Co', 'O', 'Te')\",OTHERS,False\nmp-1094352,\"{'Sr': 8.0, 'Mg': 4.0}\",\"('Mg', 'Sr')\",OTHERS,False\nmp-757997,\"{'Li': 4.0, 'Sn': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1224936,\"{'Fe': 15.0, 'O': 16.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-7591,\"{'Ge': 1.0, 'As': 1.0}\",\"('As', 'Ge')\",OTHERS,False\nmp-557865,\"{'N': 6.0, 'O': 12.0}\",\"('N', 'O')\",OTHERS,False\nmp-651122,\"{'Mn': 12.0, 'Bi': 4.0, 'C': 60.0, 'O': 60.0}\",\"('Bi', 'C', 'Mn', 'O')\",OTHERS,False\nmp-1095889,\"{'Ta': 1.0, 'Nb': 1.0, 'Os': 2.0}\",\"('Nb', 'Os', 'Ta')\",OTHERS,False\nmp-1184534,\"{'Gd': 1.0, 'Lu': 1.0, 'Cd': 2.0}\",\"('Cd', 'Gd', 'Lu')\",OTHERS,False\nmp-1172894,\"{'Ca': 2.0, 'Ga': 4.0}\",\"('Ca', 'Ga')\",OTHERS,False\nmp-1183430,\"{'Ca': 2.0, 'Mg': 4.0}\",\"('Ca', 'Mg')\",OTHERS,False\nmp-1217436,\"{'Th': 4.0, 'U': 8.0, 'S': 20.0}\",\"('S', 'Th', 'U')\",OTHERS,False\nmp-7851,\"{'Co': 9.0, 'Ta': 3.0}\",\"('Co', 'Ta')\",OTHERS,False\nmp-768986,\"{'Li': 40.0, 'Bi': 8.0, 'O': 32.0}\",\"('Bi', 'Li', 'O')\",OTHERS,False\nmp-867551,\"{'Li': 12.0, 'Ni': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1214566,\"{'Ba': 6.0, 'Co': 2.0, 'O': 10.0}\",\"('Ba', 'Co', 'O')\",OTHERS,False\nmp-770367,\"{'Li': 2.0, 'V': 4.0, 'S': 6.0, 'O': 24.0}\",\"('Li', 'O', 'S', 'V')\",OTHERS,False\nmp-768430,\"{'Li': 24.0, 'Ti': 7.0, 'Cr': 5.0, 'O': 36.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-976280,\"{'Li': 2.0, 'Br': 2.0}\",\"('Br', 'Li')\",OTHERS,False\nmp-13230,\"{'F': 12.0, 'K': 6.0, 'Y': 2.0}\",\"('F', 'K', 'Y')\",OTHERS,False\nAu 44.2 In 41.7 Ca 14.1,\"{'Au': 44.2, 'In': 41.7, 'Ca': 14.1}\",\"('Au', 'Ca', 'In')\",QC,False\nmp-27539,\"{'O': 10.0, 'La': 4.0, 'Re': 2.0}\",\"('La', 'O', 'Re')\",OTHERS,False\nmp-30011,\"{'F': 28.0, 'Kr': 4.0, 'Sb': 4.0}\",\"('F', 'Kr', 'Sb')\",OTHERS,False\nmp-1100775,\"{'Sr': 1.0, 'Eu': 1.0, 'O': 3.0}\",\"('Eu', 'O', 'Sr')\",OTHERS,False\nmp-25420,\"{'Li': 2.0, 'Ti': 2.0, 'P': 2.0, 'O': 8.0, 'F': 2.0}\",\"('F', 'Li', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1095730,\"{'Tl': 2.0, 'Cd': 1.0, 'In': 1.0}\",\"('Cd', 'In', 'Tl')\",OTHERS,False\nmp-774912,\"{'Li': 4.0, 'Nb': 2.0, 'Co': 3.0, 'Sb': 3.0, 'O': 16.0}\",\"('Co', 'Li', 'Nb', 'O', 'Sb')\",OTHERS,False\nmp-1095377,\"{'Er': 4.0, 'Sn': 4.0, 'Pd': 4.0}\",\"('Er', 'Pd', 'Sn')\",OTHERS,False\nmp-510122,\"{'Ce': 2.0, 'Co': 6.0, 'Pu': 8.0}\",\"('Ce', 'Co', 'Pu')\",OTHERS,False\nmvc-4004,\"{'Al': 4.0, 'W': 4.0, 'O': 12.0}\",\"('Al', 'O', 'W')\",OTHERS,False\nmp-1218918,\"{'Sr': 10.0, 'P': 6.0, 'Br': 1.0, 'O': 24.0, 'F': 1.0}\",\"('Br', 'F', 'O', 'P', 'Sr')\",OTHERS,False\nmp-1181006,\"{'Li': 4.0, 'V': 4.0, 'Te': 4.0, 'O': 20.0}\",\"('Li', 'O', 'Te', 'V')\",OTHERS,False\nmp-28866,\"{'Cl': 12.0, 'Te': 2.0, 'Os': 1.0}\",\"('Cl', 'Os', 'Te')\",OTHERS,False\nmp-556235,\"{'Ca': 4.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Ca', 'O')\",OTHERS,False\nmp-1185435,\"{'Li': 1.0, 'Yb': 1.0, 'Au': 2.0}\",\"('Au', 'Li', 'Yb')\",OTHERS,False\nmp-1220063,\"{'Pr': 7.0, 'In': 6.0, 'Ni': 5.0, 'Ge': 3.0}\",\"('Ge', 'In', 'Ni', 'Pr')\",OTHERS,False\nmp-1228917,\"{'Al': 1.0, 'In': 1.0, 'Ga': 1.0, 'Sb': 3.0}\",\"('Al', 'Ga', 'In', 'Sb')\",OTHERS,False\nmp-1214309,\"{'C': 16.0, 'N': 16.0, 'O': 32.0}\",\"('C', 'N', 'O')\",OTHERS,False\nmp-1212306,\"{'Ho': 16.0, 'Cd': 4.0, 'Pt': 4.0}\",\"('Cd', 'Ho', 'Pt')\",OTHERS,False\nmp-1215589,\"{'Zr': 3.0, 'Al': 1.0, 'N': 4.0}\",\"('Al', 'N', 'Zr')\",OTHERS,False\nmp-30792,\"{'Na': 16.0, 'Pb': 16.0}\",\"('Na', 'Pb')\",OTHERS,False\nZn 75 Sc 15 Ag 10,\"{'Zn': 75.0, 'Sc': 15.0, 'Ag': 10.0}\",\"('Ag', 'Sc', 'Zn')\",QC,False\nmp-743872,\"{'V': 4.0, 'P': 4.0, 'H': 20.0, 'N': 4.0, 'O': 24.0}\",\"('H', 'N', 'O', 'P', 'V')\",OTHERS,False\nmp-1221881,\"{'Mn': 2.0, 'Al': 1.0, 'Cu': 3.0}\",\"('Al', 'Cu', 'Mn')\",OTHERS,False\nmp-1218661,\"{'Sr': 6.0, 'Ti': 2.0, 'Nb': 8.0, 'O': 30.0}\",\"('Nb', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1246203,\"{'Ca': 6.0, 'Ni': 2.0, 'N': 6.0}\",\"('Ca', 'N', 'Ni')\",OTHERS,False\nmp-1209473,\"{'Rb': 2.0, 'Na': 6.0, 'Fe': 14.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'Na', 'O', 'P', 'Rb')\",OTHERS,False\nmp-777271,\"{'Li': 9.0, 'Mn': 12.0, 'B': 12.0, 'O': 36.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1035964,\"{'Cs': 1.0, 'K': 1.0, 'Mg': 14.0, 'O': 15.0}\",\"('Cs', 'K', 'Mg', 'O')\",OTHERS,False\nmp-1101681,\"{'Nd': 2.0, 'Bi': 7.0, 'O': 14.0}\",\"('Bi', 'Nd', 'O')\",OTHERS,False\nmp-1207153,\"{'Gd': 3.0, 'Ga': 1.0, 'C': 1.0}\",\"('C', 'Ga', 'Gd')\",OTHERS,False\nmp-1210743,\"{'Li': 2.0, 'C': 1.0}\",\"('C', 'Li')\",OTHERS,False\nmp-1079313,\"{'V': 6.0, 'Ge': 2.0, 'C': 2.0}\",\"('C', 'Ge', 'V')\",OTHERS,False\nmp-1198817,\"{'Gd': 8.0, 'Si': 6.0, 'S': 24.0}\",\"('Gd', 'S', 'Si')\",OTHERS,False\nmp-1189433,\"{'La': 10.0, 'Sn': 6.0, 'C': 2.0}\",\"('C', 'La', 'Sn')\",OTHERS,False\nmp-1223414,\"{'La': 4.0, 'Te': 12.0, 'W': 2.0, 'O': 36.0}\",\"('La', 'O', 'Te', 'W')\",OTHERS,False\nmp-1080709,\"{'Nd': 4.0, 'Au': 4.0}\",\"('Au', 'Nd')\",OTHERS,False\nmp-762322,\"{'Li': 2.0, 'Ti': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'Ti')\",OTHERS,False\nmp-775202,\"{'Cr': 1.0, 'Sb': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1038009,\"{'Sr': 1.0, 'Ca': 1.0, 'Mg': 30.0, 'O': 32.0}\",\"('Ca', 'Mg', 'O', 'Sr')\",OTHERS,False\nmp-13065,\"{'O': 3.0, 'Ho': 2.0}\",\"('Ho', 'O')\",OTHERS,False\nmp-541487,\"{'Tl': 2.0, 'Pt': 4.0, 'Se': 6.0}\",\"('Pt', 'Se', 'Tl')\",OTHERS,False\nmp-9517,\"{'N': 4.0, 'Ti': 2.0, 'Sr': 2.0}\",\"('N', 'Sr', 'Ti')\",OTHERS,False\nmp-1188299,\"{'Tm': 4.0, 'Si': 4.0, 'Pd': 8.0}\",\"('Pd', 'Si', 'Tm')\",OTHERS,False\nmp-721365,\"{'V': 4.0, 'H': 40.0, 'S': 4.0, 'O': 40.0}\",\"('H', 'O', 'S', 'V')\",OTHERS,False\nmp-17746,\"{'Hf': 6.0, 'Ge': 6.0, 'Pd': 6.0}\",\"('Ge', 'Hf', 'Pd')\",OTHERS,False\nmvc-12592,\"{'Mg': 2.0, 'Cr': 4.0, 'O': 8.0}\",\"('Cr', 'Mg', 'O')\",OTHERS,False\nmp-1187112,\"{'Sr': 6.0, 'Dy': 2.0}\",\"('Dy', 'Sr')\",OTHERS,False\nmp-1078810,\"{'Sc': 4.0, 'Sn': 2.0, 'Au': 4.0}\",\"('Au', 'Sc', 'Sn')\",OTHERS,False\nmp-1180312,\"{'Mg': 8.0, 'O': 8.0}\",\"('Mg', 'O')\",OTHERS,False\nmp-1225422,\"{'Fe': 20.0, 'Bi': 16.0, 'O': 52.0, 'F': 4.0}\",\"('Bi', 'F', 'Fe', 'O')\",OTHERS,False\nmp-1187318,\"{'Tb': 6.0, 'Pr': 2.0}\",\"('Pr', 'Tb')\",OTHERS,False\nmp-1224843,\"{'Ga': 1.0, 'Mo': 4.0, 'Se': 4.0, 'S': 4.0}\",\"('Ga', 'Mo', 'S', 'Se')\",OTHERS,False\nmp-1216295,\"{'V': 1.0, 'Re': 11.0, 'B': 4.0}\",\"('B', 'Re', 'V')\",OTHERS,False\nmp-1217611,\"{'Ti': 2.0, 'Fe': 4.0, 'Bi': 4.0, 'Pb': 2.0, 'O': 18.0}\",\"('Bi', 'Fe', 'O', 'Pb', 'Ti')\",OTHERS,False\nmp-1186280,\"{'Nd': 3.0, 'Ti': 1.0}\",\"('Nd', 'Ti')\",OTHERS,False\nmp-1192484,\"{'Y': 20.0, 'Cd': 6.0, 'Ru': 2.0}\",\"('Cd', 'Ru', 'Y')\",OTHERS,False\nmp-1201180,\"{'Mn': 2.0, 'Fe': 4.0, 'P': 4.0, 'O': 32.0}\",\"('Fe', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1191469,\"{'Cd': 5.0, 'N': 2.0, 'O': 16.0}\",\"('Cd', 'N', 'O')\",OTHERS,False\nmp-1199635,\"{'Cu': 4.0, 'C': 32.0, 'N': 8.0, 'Cl': 16.0}\",\"('C', 'Cl', 'Cu', 'N')\",OTHERS,False\nmp-27252,\"{'Cd': 4.0, 'I': 12.0, 'Tl': 4.0}\",\"('Cd', 'I', 'Tl')\",OTHERS,False\nmp-1076508,\"{'La': 4.0, 'Cr': 4.0, 'O': 10.0}\",\"('Cr', 'La', 'O')\",OTHERS,False\nmp-17283,\"{'K': 12.0, 'Se': 16.0, 'Nb': 4.0}\",\"('K', 'Nb', 'Se')\",OTHERS,False\nmp-485,\"{'Ni': 6.0, 'Zr': 2.0}\",\"('Ni', 'Zr')\",OTHERS,False\nmvc-2260,\"{'Cr': 9.0, 'O': 13.0}\",\"('Cr', 'O')\",OTHERS,False\nmp-1029726,\"{'Li': 12.0, 'Ir': 2.0, 'N': 8.0}\",\"('Ir', 'Li', 'N')\",OTHERS,False\nmp-30403,\"{'Li': 2.0, 'Au': 1.0, 'Pb': 1.0}\",\"('Au', 'Li', 'Pb')\",OTHERS,False\nmp-1212145,\"{'K': 12.0, 'Be': 12.0, 'B': 12.0, 'P': 24.0, 'O': 100.0}\",\"('B', 'Be', 'K', 'O', 'P')\",OTHERS,False\nmp-1207603,\"{'Y': 1.0, 'Ga': 3.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Ga', 'O', 'Y')\",OTHERS,False\nmp-1113032,\"{'Cs': 2.0, 'K': 1.0, 'Ta': 1.0, 'F': 6.0}\",\"('Cs', 'F', 'K', 'Ta')\",OTHERS,False\nmvc-10179,\"{'Ca': 4.0, 'P': 8.0, 'W': 8.0, 'O': 32.0}\",\"('Ca', 'O', 'P', 'W')\",OTHERS,False\nmp-862657,\"{'Li': 1.0, 'Cu': 1.0, 'Pd': 2.0}\",\"('Cu', 'Li', 'Pd')\",OTHERS,False\nmp-1078573,\"{'Ge': 2.0, 'H': 8.0}\",\"('Ge', 'H')\",OTHERS,False\nmvc-10236,\"{'Mg': 6.0, 'Ni': 12.0, 'O': 24.0}\",\"('Mg', 'Ni', 'O')\",OTHERS,False\nmp-1201338,\"{'V': 12.0, 'O': 26.0}\",\"('O', 'V')\",OTHERS,False\nmp-1196235,\"{'Sm': 8.0, 'U': 4.0, 'Se': 20.0}\",\"('Se', 'Sm', 'U')\",OTHERS,False\nmp-1247301,\"{'Co': 3.0, 'C': 6.0, 'N': 9.0}\",\"('C', 'Co', 'N')\",OTHERS,False\nmp-770332,\"{'Na': 2.0, 'Bi': 2.0, 'C': 2.0, 'S': 2.0, 'O': 14.0}\",\"('Bi', 'C', 'Na', 'O', 'S')\",OTHERS,False\nmp-31080,\"{'Al': 2.0, 'Si': 2.0, 'Y': 2.0}\",\"('Al', 'Si', 'Y')\",OTHERS,False\nmp-1202849,\"{'Sr': 2.0, 'H': 36.0, 'Cl': 4.0, 'O': 34.0}\",\"('Cl', 'H', 'O', 'Sr')\",OTHERS,False\nmp-556573,\"{'K': 8.0, 'W': 4.0, 'C': 8.0, 'O': 36.0}\",\"('C', 'K', 'O', 'W')\",OTHERS,False\nmp-1248182,\"{'Na': 4.0, 'Al': 11.0, 'Si': 13.0, 'Ag': 7.0, 'O': 48.0}\",\"('Ag', 'Al', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1209156,\"{'Sb': 4.0, 'C': 8.0, 'O': 20.0}\",\"('C', 'O', 'Sb')\",OTHERS,False\nmp-1228559,\"{'Al': 5.0, 'Ni': 41.0, 'B': 12.0}\",\"('Al', 'B', 'Ni')\",OTHERS,False\nmp-766112,\"{'Li': 8.0, 'Mn': 2.0, 'V': 6.0, 'P': 16.0, 'O': 56.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1247552,\"{'Na': 2.0, 'Ti': 1.0, 'N': 2.0}\",\"('N', 'Na', 'Ti')\",OTHERS,False\nmp-1040029,\"{'Rb': 1.0, 'La': 1.0, 'Mg': 30.0, 'O': 32.0}\",\"('La', 'Mg', 'O', 'Rb')\",OTHERS,False\nmp-1204691,\"{'Pr': 4.0, 'B': 20.0, 'O': 40.0}\",\"('B', 'O', 'Pr')\",OTHERS,False\nmp-13126,\"{'N': 2.0, 'Zr': 2.0}\",\"('N', 'Zr')\",OTHERS,False\nmp-559631,\"{'Bi': 12.0, 'Rh': 24.0, 'O': 58.0}\",\"('Bi', 'O', 'Rh')\",OTHERS,False\nmp-1039945,\"{'Rb': 1.0, 'Mg': 30.0, 'Si': 1.0, 'O': 32.0}\",\"('Mg', 'O', 'Rb', 'Si')\",OTHERS,False\nCd 25 Eu 4,\"{'Cd': 25.0, 'Eu': 4.0}\",\"('Cd', 'Eu')\",AC,False\nmp-1025175,\"{'Lu': 2.0, 'Cr': 2.0, 'C': 3.0}\",\"('C', 'Cr', 'Lu')\",OTHERS,False\nmp-772255,\"{'Cu': 6.0, 'P': 6.0, 'O': 18.0}\",\"('Cu', 'O', 'P')\",OTHERS,False\nmp-1227177,\"{'Ca': 1.0, 'Eu': 1.0, 'Si': 4.0}\",\"('Ca', 'Eu', 'Si')\",OTHERS,False\nmp-777003,\"{'Fe': 7.0, 'Te': 1.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'O', 'P', 'Te')\",OTHERS,False\nmp-1217422,\"{'Tc': 1.0, 'Rh': 1.0}\",\"('Rh', 'Tc')\",OTHERS,False\nmp-1215887,\"{'Y': 1.0, 'U': 1.0, 'Cu': 4.0, 'Si': 4.0}\",\"('Cu', 'Si', 'U', 'Y')\",OTHERS,False\nmp-765294,\"{'Sr': 2.0, 'P': 4.0, 'H': 8.0, 'O': 12.0}\",\"('H', 'O', 'P', 'Sr')\",OTHERS,False\nmp-1223068,\"{'Li': 14.0, 'Eu': 16.0, 'Si': 8.0, 'Cl': 14.0, 'O': 32.0}\",\"('Cl', 'Eu', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1176274,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1038357,\"{'Hf': 1.0, 'Mg': 30.0, 'Bi': 1.0, 'O': 32.0}\",\"('Bi', 'Hf', 'Mg', 'O')\",OTHERS,False\nmp-1211511,\"{'K': 4.0, 'Tl': 8.0}\",\"('K', 'Tl')\",OTHERS,False\nmp-1213389,\"{'Cs': 2.0, 'Lu': 2.0, 'Ta': 12.0, 'Br': 36.0}\",\"('Br', 'Cs', 'Lu', 'Ta')\",OTHERS,False\nmp-755385,\"{'Fe': 6.0, 'O': 2.0, 'F': 10.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-704268,\"{'Mn': 36.0, 'Ag': 48.0, 'O': 96.0}\",\"('Ag', 'Mn', 'O')\",OTHERS,False\nmp-35822,\"{'Li': 8.0, 'O': 8.0, 'Si': 2.0}\",\"('Li', 'O', 'Si')\",OTHERS,False\nmp-1192080,\"{'Nd': 2.0, 'Mn': 3.0, 'Sb': 4.0, 'S': 12.0}\",\"('Mn', 'Nd', 'S', 'Sb')\",OTHERS,False\nmp-684493,\"{'Li': 4.0, 'Sn': 8.0, 'P': 12.0, 'O': 40.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1193479,\"{'U': 6.0, 'O': 22.0}\",\"('O', 'U')\",OTHERS,False\nmp-1200133,\"{'Mg': 4.0, 'Cu': 4.0, 'C': 4.0, 'O': 20.0}\",\"('C', 'Cu', 'Mg', 'O')\",OTHERS,False\nmp-30247,\"{'H': 2.0, 'O': 2.0, 'Mg': 1.0}\",\"('H', 'Mg', 'O')\",OTHERS,False\nmp-1079587,\"{'Yb': 4.0, 'Pd': 4.0}\",\"('Pd', 'Yb')\",OTHERS,False\nmp-14578,\"{'S': 44.0, 'Cs': 16.0, 'Ta': 8.0}\",\"('Cs', 'S', 'Ta')\",OTHERS,False\nZn 58 Mg 40 Er 2,\"{'Zn': 58.0, 'Mg': 40.0, 'Er': 2.0}\",\"('Er', 'Mg', 'Zn')\",QC,False\nmp-12565,\"{'Mn': 1.0, 'Au': 4.0}\",\"('Au', 'Mn')\",OTHERS,False\nmp-766028,\"{'K': 4.0, 'Li': 5.0, 'Ti': 8.0, 'P': 8.0, 'O': 40.0}\",\"('K', 'Li', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1096760,\"{'Ti': 1.0, 'Al': 1.0, 'Ir': 2.0}\",\"('Al', 'Ir', 'Ti')\",OTHERS,False\nmp-561108,\"{'Y': 4.0, 'I': 12.0, 'O': 36.0}\",\"('I', 'O', 'Y')\",OTHERS,False\nmvc-1192,\"{'Ba': 2.0, 'Sn': 3.0, 'O': 7.0}\",\"('Ba', 'O', 'Sn')\",OTHERS,False\nmp-849518,\"{'Mn': 12.0, 'O': 7.0, 'F': 17.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1175125,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-561008,\"{'Ca': 8.0, 'P': 16.0, 'O': 48.0}\",\"('Ca', 'O', 'P')\",OTHERS,False\nmp-1190821,\"{'Y': 2.0, 'Fe': 17.0, 'C': 3.0}\",\"('C', 'Fe', 'Y')\",OTHERS,False\nmp-11473,\"{'Hg': 1.0, 'Tl': 1.0}\",\"('Hg', 'Tl')\",OTHERS,False\nmp-2242,\"{'S': 4.0, 'Ge': 4.0}\",\"('Ge', 'S')\",OTHERS,False\nmp-772590,\"{'Li': 12.0, 'V': 4.0, 'B': 8.0, 'S': 2.0, 'O': 32.0}\",\"('B', 'Li', 'O', 'S', 'V')\",OTHERS,False\nmp-759535,\"{'Na': 12.0, 'Cu': 20.0, 'O': 16.0}\",\"('Cu', 'Na', 'O')\",OTHERS,False\nmp-504735,\"{'Ni': 12.0, 'Ti': 12.0, 'O': 4.0}\",\"('Ni', 'O', 'Ti')\",OTHERS,False\nmp-755794,\"{'Rb': 6.0, 'Lu': 2.0, 'O': 6.0}\",\"('Lu', 'O', 'Rb')\",OTHERS,False\nmp-972866,\"{'Sc': 2.0, 'Pd': 1.0, 'Au': 1.0}\",\"('Au', 'Pd', 'Sc')\",OTHERS,False\nmp-13240,\"{'Sc': 1.0, 'Cu': 4.0, 'In': 1.0}\",\"('Cu', 'In', 'Sc')\",OTHERS,False\nmp-1198692,\"{'Ti': 20.0, 'Ge': 16.0}\",\"('Ge', 'Ti')\",OTHERS,False\nmp-770173,\"{'Mg': 4.0, 'Mn': 6.0, 'O': 16.0}\",\"('Mg', 'Mn', 'O')\",OTHERS,False\nmp-1211262,\"{'La': 2.0, 'B': 2.0, 'Pt': 8.0}\",\"('B', 'La', 'Pt')\",OTHERS,False\nmp-8806,\"{'Sr': 4.0, 'Cu': 4.0, 'O': 6.0}\",\"('Cu', 'O', 'Sr')\",OTHERS,False\nmp-1198034,\"{'Cd': 4.0, 'H': 20.0, 'Br': 12.0, 'N': 8.0}\",\"('Br', 'Cd', 'H', 'N')\",OTHERS,False\nmp-1185732,\"{'Mg': 16.0, 'Ta': 1.0, 'Al': 12.0}\",\"('Al', 'Mg', 'Ta')\",OTHERS,False\nmp-865025,\"{'Hf': 1.0, 'Ta': 1.0, 'Re': 2.0}\",\"('Hf', 'Re', 'Ta')\",OTHERS,False\nmp-734875,\"{'H': 4.0, 'Pb': 8.0, 'C': 2.0, 'Cl': 12.0, 'O': 8.0}\",\"('C', 'Cl', 'H', 'O', 'Pb')\",OTHERS,False\nmp-1195066,\"{'Cs': 14.0, 'Fe': 8.0, 'S': 16.0}\",\"('Cs', 'Fe', 'S')\",OTHERS,False\nmp-1210767,\"{'Pr': 12.0, 'In': 1.0, 'Co': 6.0}\",\"('Co', 'In', 'Pr')\",OTHERS,False\nmp-758993,\"{'Li': 8.0, 'Cr': 8.0, 'P': 8.0, 'O': 28.0, 'F': 8.0}\",\"('Cr', 'F', 'Li', 'O', 'P')\",OTHERS,False\nmp-504815,\"{'Re': 10.0, 'Ni': 4.0, 'As': 24.0}\",\"('As', 'Ni', 'Re')\",OTHERS,False\nmp-30532,\"{'Zn': 2.0, 'I': 8.0, 'Tl': 4.0}\",\"('I', 'Tl', 'Zn')\",OTHERS,False\nmp-6578,\"{'B': 4.0, 'O': 48.0, 'P': 12.0, 'Ba': 12.0}\",\"('B', 'Ba', 'O', 'P')\",OTHERS,False\nmp-1227336,\"{'Ba': 1.0, 'Sr': 1.0, 'Ti': 2.0, 'O': 6.0}\",\"('Ba', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1102559,\"{'Nb': 4.0, 'Se': 8.0}\",\"('Nb', 'Se')\",OTHERS,False\nmp-1174192,\"{'Li': 4.0, 'Mn': 3.0, 'Co': 1.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-20064,\"{'Ga': 2.0, 'Dy': 1.0}\",\"('Dy', 'Ga')\",OTHERS,False\nmp-1222723,\"{'La': 1.0, 'U': 1.0, 'O': 4.0}\",\"('La', 'O', 'U')\",OTHERS,False\nmp-744386,\"{'Al': 9.0, 'Fe': 2.0, 'Si': 4.0, 'H': 1.0, 'O': 24.0}\",\"('Al', 'Fe', 'H', 'O', 'Si')\",OTHERS,False\nmp-865032,\"{'Mn': 2.0, 'Pt': 1.0, 'Rh': 1.0}\",\"('Mn', 'Pt', 'Rh')\",OTHERS,False\nmp-643801,\"{'K': 2.0, 'H': 6.0, 'Pb': 1.0, 'O': 6.0}\",\"('H', 'K', 'O', 'Pb')\",OTHERS,False\nmp-1071252,\"{'La': 1.0, 'Ga': 2.0, 'Rh': 3.0}\",\"('Ga', 'La', 'Rh')\",OTHERS,False\nmp-1202411,\"{'Fe': 8.0, 'P': 4.0, 'H': 4.0, 'O': 12.0, 'F': 8.0}\",\"('F', 'Fe', 'H', 'O', 'P')\",OTHERS,False\nmp-20787,\"{'Fe': 4.0, 'B': 4.0}\",\"('B', 'Fe')\",OTHERS,False\nmp-556050,\"{'P': 32.0, 'S': 8.0, 'N': 48.0, 'F': 48.0}\",\"('F', 'N', 'P', 'S')\",OTHERS,False\nmp-1104424,\"{'Ba': 8.0, 'Sb': 4.0, 'H': 2.0, 'O': 1.0}\",\"('Ba', 'H', 'O', 'Sb')\",OTHERS,False\nmp-19918,\"{'Ge': 2.0, 'Gd': 2.0}\",\"('Gd', 'Ge')\",OTHERS,False\nmp-1245079,\"{'Be': 50.0, 'O': 50.0}\",\"('Be', 'O')\",OTHERS,False\nmp-1228533,\"{'Ba': 2.0, 'Sr': 1.0, 'Ca': 3.0, 'Mg': 2.0, 'Si': 4.0, 'O': 16.0}\",\"('Ba', 'Ca', 'Mg', 'O', 'Si', 'Sr')\",OTHERS,False\nmp-1186660,\"{'Pu': 1.0, 'Cd': 1.0, 'Hg': 2.0}\",\"('Cd', 'Hg', 'Pu')\",OTHERS,False\nmp-979137,\"{'Sr': 1.0, 'Ga': 1.0, 'Si': 1.0, 'H': 1.0}\",\"('Ga', 'H', 'Si', 'Sr')\",OTHERS,False\nmp-754756,\"{'Li': 2.0, 'Ni': 1.0, 'O': 2.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmp-1217486,\"{'Tb': 2.0, 'Mn': 2.0, 'Fe': 2.0}\",\"('Fe', 'Mn', 'Tb')\",OTHERS,False\nmp-29912,\"{'Sb': 16.0, 'Mo': 8.0, 'Se': 8.0}\",\"('Mo', 'Sb', 'Se')\",OTHERS,False\nmp-1226515,\"{'Ce': 1.0, 'Mn': 1.0, 'Si': 2.0, 'Pd': 1.0}\",\"('Ce', 'Mn', 'Pd', 'Si')\",OTHERS,False\nmp-24420,\"{'H': 2.0, 'Se': 1.0}\",\"('H', 'Se')\",OTHERS,False\nmp-1219026,\"{'Sm': 1.0, 'Y': 1.0, 'Fe': 17.0}\",\"('Fe', 'Sm', 'Y')\",OTHERS,False\nmp-753172,\"{'Li': 4.0, 'Cr': 5.0, 'O': 10.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-1184970,\"{'Li': 2.0, 'Hg': 1.0, 'Bi': 1.0}\",\"('Bi', 'Hg', 'Li')\",OTHERS,False\nmp-974061,\"{'K': 1.0, 'Si': 1.0, 'O': 3.0}\",\"('K', 'O', 'Si')\",OTHERS,False\nmp-1097667,\"{'Y': 1.0, 'Sc': 1.0, 'Tl': 2.0}\",\"('Sc', 'Tl', 'Y')\",OTHERS,False\nmp-26304,\"{'O': 32.0, 'P': 8.0, 'Cu': 9.0}\",\"('Cu', 'O', 'P')\",OTHERS,False\nmp-775479,\"{'Li': 8.0, 'Fe': 12.0, 'Cu': 4.0, 'O': 32.0}\",\"('Cu', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1019797,\"{'K': 20.0, 'B': 4.0, 'S': 16.0, 'O': 64.0}\",\"('B', 'K', 'O', 'S')\",OTHERS,False\nmp-1218425,\"{'Sr': 3.0, 'Ta': 1.0, 'Co': 1.0, 'O': 7.0}\",\"('Co', 'O', 'Sr', 'Ta')\",OTHERS,False\nmp-1208499,\"{'Tb': 12.0, 'Nb': 8.0, 'Al': 86.0}\",\"('Al', 'Nb', 'Tb')\",OTHERS,False\nmp-1025834,\"{'Te': 2.0, 'Mo': 1.0, 'W': 2.0, 'Se': 4.0}\",\"('Mo', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1207401,\"{'Zn': 2.0, 'Se': 2.0, 'O': 10.0}\",\"('O', 'Se', 'Zn')\",OTHERS,False\nmp-11560,\"{'Si': 6.0, 'Ti': 6.0, 'Ru': 6.0}\",\"('Ru', 'Si', 'Ti')\",OTHERS,False\nAu 50.5 Ga 35.9 Ca 13.6,\"{'Au': 50.5, 'Ga': 35.9, 'Ca': 13.6}\",\"('Au', 'Ca', 'Ga')\",AC,False\nmp-770905,\"{'Li': 2.0, 'Mn': 2.0, 'As': 2.0, 'C': 2.0, 'O': 14.0}\",\"('As', 'C', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-754642,\"{'Mn': 4.0, 'Fe': 2.0, 'O': 8.0}\",\"('Fe', 'Mn', 'O')\",OTHERS,False\nmp-753461,\"{'Li': 4.0, 'Mn': 3.0, 'O': 1.0, 'F': 11.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1192180,\"{'Tm': 8.0, 'P': 8.0, 'S': 8.0}\",\"('P', 'S', 'Tm')\",OTHERS,False\nmp-1185721,\"{'Mg': 16.0, 'Al': 12.0, 'Zn': 1.0}\",\"('Al', 'Mg', 'Zn')\",OTHERS,False\nmp-1182691,\"{'Mg': 16.0, 'Si': 24.0, 'O': 92.0}\",\"('Mg', 'O', 'Si')\",OTHERS,False\nmp-555117,\"{'Cs': 16.0, 'Bi': 32.0, 'O': 56.0}\",\"('Bi', 'Cs', 'O')\",OTHERS,False\nmp-772482,\"{'Mn': 3.0, 'Sn': 3.0, 'Te': 2.0, 'O': 16.0}\",\"('Mn', 'O', 'Sn', 'Te')\",OTHERS,False\nmp-1266421,\"{'Si': 12.0, 'Bi': 18.0, 'O': 52.0}\",\"('Bi', 'O', 'Si')\",OTHERS,False\nmp-1245456,\"{'Cu': 16.0, 'Ge': 16.0, 'N': 32.0}\",\"('Cu', 'Ge', 'N')\",OTHERS,False\nmp-757620,\"{'Li': 4.0, 'V': 4.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-771660,\"{'Mn': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Mn', 'O', 'P')\",OTHERS,False\nmp-24199,\"{'H': 1.0, 'Li': 1.0, 'F': 2.0}\",\"('F', 'H', 'Li')\",OTHERS,False\nmvc-10039,\"{'La': 1.0, 'Cr': 1.0, 'Ni': 1.0, 'O': 6.0}\",\"('Cr', 'La', 'Ni', 'O')\",OTHERS,False\nmp-1201811,\"{'Sr': 4.0, 'O': 40.0}\",\"('O', 'Sr')\",OTHERS,False\nmp-4248,\"{'C': 2.0, 'Co': 1.0, 'Y': 1.0}\",\"('C', 'Co', 'Y')\",OTHERS,False\nmp-1025194,\"{'Pr': 2.0, 'Fe': 2.0, 'Si': 2.0, 'C': 1.0}\",\"('C', 'Fe', 'Pr', 'Si')\",OTHERS,False\nmp-998883,{'Ge': 1.0},\"('Ge',)\",OTHERS,False\nmp-9312,\"{'C': 2.0, 'Ni': 1.0, 'Pr': 1.0}\",\"('C', 'Ni', 'Pr')\",OTHERS,False\nmp-1227930,\"{'Ba': 2.0, 'La': 2.0, 'Sm': 2.0, 'Mn': 6.0, 'O': 18.0}\",\"('Ba', 'La', 'Mn', 'O', 'Sm')\",OTHERS,False\nmp-1027002,\"{'Te': 2.0, 'Mo': 1.0, 'W': 3.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-24672,\"{'H': 20.0, 'Ni': 2.0, 'Zr': 12.0, 'Sn': 4.0}\",\"('H', 'Ni', 'Sn', 'Zr')\",OTHERS,False\nmp-977368,\"{'K': 2.0, 'Dy': 4.0, 'Cu': 4.0, 'Se': 9.0}\",\"('Cu', 'Dy', 'K', 'Se')\",OTHERS,False\nAg 2 In 4 Yb 1,\"{'Ag': 2.0, 'In': 4.0, 'Yb': 1.0}\",\"('Ag', 'In', 'Yb')\",AC,False\nmp-1407,\"{'Se': 8.0, 'Rh': 3.0}\",\"('Rh', 'Se')\",OTHERS,False\nmp-29593,\"{'P': 12.0, 'Cl': 96.0, 'Re': 8.0}\",\"('Cl', 'P', 'Re')\",OTHERS,False\nmp-1216835,\"{'Tl': 1.0, 'V': 12.0, 'S': 16.0}\",\"('S', 'Tl', 'V')\",OTHERS,False\nmp-1218367,\"{'Sr': 3.0, 'Ca': 1.0, 'S': 4.0}\",\"('Ca', 'S', 'Sr')\",OTHERS,False\nmp-1245115,\"{'Sn': 40.0, 'O': 40.0}\",\"('O', 'Sn')\",OTHERS,False\nmp-758707,\"{'Li': 8.0, 'Mn': 12.0, 'W': 4.0, 'O': 32.0}\",\"('Li', 'Mn', 'O', 'W')\",OTHERS,False\nmp-14322,\"{'O': 9.0, 'Ba': 3.0, 'Tm': 4.0}\",\"('Ba', 'O', 'Tm')\",OTHERS,False\nmp-672344,\"{'Ce': 4.0, 'Al': 20.0, 'Pt': 12.0}\",\"('Al', 'Ce', 'Pt')\",OTHERS,False\nmp-1192281,\"{'Cs': 1.0, 'B': 12.0, 'O': 12.0}\",\"('B', 'Cs', 'O')\",OTHERS,False\nmp-1178459,\"{'Cr': 12.0, 'Fe': 7.0, 'O': 48.0}\",\"('Cr', 'Fe', 'O')\",OTHERS,False\nmp-568619,\"{'Si': 5.0, 'C': 5.0}\",\"('C', 'Si')\",OTHERS,False\nmp-1071438,\"{'Gd': 1.0, 'Ni': 4.0, 'Au': 1.0}\",\"('Au', 'Gd', 'Ni')\",OTHERS,False\nmp-1209830,\"{'P': 1.0, 'Br': 2.0}\",\"('Br', 'P')\",OTHERS,False\nmp-764879,\"{'V': 8.0, 'O': 6.0, 'F': 18.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-22919,\"{'Ag': 1.0, 'I': 1.0}\",\"('Ag', 'I')\",OTHERS,False\nmp-16830,\"{'B': 6.0, 'Ni': 12.0, 'Sr': 1.0}\",\"('B', 'Ni', 'Sr')\",OTHERS,False\nmp-1102848,\"{'La': 3.0, 'Ir': 9.0}\",\"('Ir', 'La')\",OTHERS,False\nmp-1096160,\"{'Sr': 2.0, 'In': 1.0, 'Hg': 1.0}\",\"('Hg', 'In', 'Sr')\",OTHERS,False\nmp-704317,\"{'K': 8.0, 'Cu': 12.0, 'Mo': 16.0, 'O': 64.0}\",\"('Cu', 'K', 'Mo', 'O')\",OTHERS,False\nmp-1093901,\"{'Zr': 1.0, 'Sb': 1.0, 'Ru': 2.0}\",\"('Ru', 'Sb', 'Zr')\",OTHERS,False\nmp-1205061,\"{'Zr': 5.0, 'Tl': 20.0, 'Se': 20.0}\",\"('Se', 'Tl', 'Zr')\",OTHERS,False\nmp-1183178,\"{'Ag': 2.0, 'As': 2.0}\",\"('Ag', 'As')\",OTHERS,False\nmp-19123,\"{'Li': 2.0, 'O': 8.0, 'V': 2.0, 'Rb': 4.0}\",\"('Li', 'O', 'Rb', 'V')\",OTHERS,False\nmp-752757,\"{'V': 4.0, 'O': 2.0, 'F': 10.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-1215929,\"{'Y': 2.0, 'Mg': 2.0, 'Al': 8.0}\",\"('Al', 'Mg', 'Y')\",OTHERS,False\nmp-669564,\"{'Cs': 4.0, 'Re': 24.0, 'S': 32.0, 'Br': 12.0}\",\"('Br', 'Cs', 'Re', 'S')\",OTHERS,False\nmp-1080131,\"{'Cu': 2.0, 'Si': 1.0, 'Hg': 1.0, 'Te': 4.0}\",\"('Cu', 'Hg', 'Si', 'Te')\",OTHERS,False\nmp-1091371,\"{'Bi': 4.0, 'O': 6.0}\",\"('Bi', 'O')\",OTHERS,False\nmp-7342,\"{'Sm': 12.0, 'Ir': 4.0}\",\"('Ir', 'Sm')\",OTHERS,False\nmp-1019596,\"{'Ce': 2.0, 'Zr': 2.0, 'O': 8.0}\",\"('Ce', 'O', 'Zr')\",OTHERS,False\nmp-1216527,\"{'Tl': 1.0, 'In': 1.0}\",\"('In', 'Tl')\",OTHERS,False\nmp-766254,\"{'Cu': 4.0, 'P': 12.0, 'O': 36.0}\",\"('Cu', 'O', 'P')\",OTHERS,False\nmp-849611,\"{'Li': 8.0, 'Mn': 12.0, 'B': 12.0, 'O': 36.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1216714,\"{'Ti': 2.0, 'Nb': 2.0, 'Al': 2.0, 'C': 2.0}\",\"('Al', 'C', 'Nb', 'Ti')\",OTHERS,False\nmp-1210996,\"{'Mg': 4.0, 'Al': 6.0, 'Si': 12.0, 'O': 36.0}\",\"('Al', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-30340,\"{'Ag': 2.0, 'In': 1.0, 'Er': 1.0}\",\"('Ag', 'Er', 'In')\",OTHERS,False\nmp-1215622,\"{'Zn': 1.0, 'Cu': 2.0, 'Sn': 1.0, 'Se': 3.0, 'S': 1.0}\",\"('Cu', 'S', 'Se', 'Sn', 'Zn')\",OTHERS,False\nmp-1185959,\"{'Mg': 2.0, 'S': 4.0}\",\"('Mg', 'S')\",OTHERS,False\nmp-8860,\"{'Na': 3.0, 'As': 1.0}\",\"('As', 'Na')\",OTHERS,False\nmp-770833,\"{'Li': 8.0, 'Sn': 4.0, 'B': 4.0, 'O': 16.0}\",\"('B', 'Li', 'O', 'Sn')\",OTHERS,False\nmp-631388,\"{'Cd': 1.0, 'Ir': 1.0, 'Ru': 1.0}\",\"('Cd', 'Ir', 'Ru')\",OTHERS,False\nmp-867352,\"{'Tc': 2.0, 'Rh': 6.0}\",\"('Rh', 'Tc')\",OTHERS,False\nmp-777902,\"{'Ti': 3.0, 'Mn': 2.0, 'Cu': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Cu', 'Mn', 'O', 'P', 'Ti')\",OTHERS,False\nmp-772144,\"{'Mn': 5.0, 'V': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Mn', 'O', 'P', 'V')\",OTHERS,False\nmvc-11476,\"{'Mg': 1.0, 'V': 4.0, 'S': 8.0}\",\"('Mg', 'S', 'V')\",OTHERS,False\nmp-505603,\"{'Pb': 20.0, 'S': 4.0, 'O': 32.0}\",\"('O', 'Pb', 'S')\",OTHERS,False\nmp-780319,\"{'Li': 6.0, 'Mn': 2.0, 'P': 4.0, 'H': 4.0, 'O': 18.0}\",\"('H', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-752550,\"{'Li': 3.0, 'Ni': 1.0, 'O': 1.0, 'F': 3.0}\",\"('F', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-1207436,\"{'Zr': 9.0, 'Pd': 11.0}\",\"('Pd', 'Zr')\",OTHERS,False\nmp-4431,\"{'S': 6.0, 'As': 2.0, 'Ag': 6.0}\",\"('Ag', 'As', 'S')\",OTHERS,False\nmp-555707,\"{'S': 16.0, 'N': 8.0, 'O': 12.0, 'F': 4.0}\",\"('F', 'N', 'O', 'S')\",OTHERS,False\nmp-13998,\"{'O': 32.0, 'Na': 40.0, 'Al': 8.0}\",\"('Al', 'Na', 'O')\",OTHERS,False\nmp-863295,\"{'Cs': 4.0, 'V': 4.0, 'Ga': 4.0, 'P': 8.0, 'O': 40.0}\",\"('Cs', 'Ga', 'O', 'P', 'V')\",OTHERS,False\nmp-504714,\"{'O': 26.0, 'I': 2.0, 'Ni': 6.0, 'B': 14.0}\",\"('B', 'I', 'Ni', 'O')\",OTHERS,False\nmp-773135,\"{'Li': 6.0, 'Cu': 6.0, 'P': 4.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-1101665,\"{'Na': 2.0, 'Li': 10.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'Na', 'O', 'P')\",OTHERS,False\nmp-1226052,\"{'Co': 1.0, 'Cu': 2.0, 'Ge': 1.0, 'Se': 4.0}\",\"('Co', 'Cu', 'Ge', 'Se')\",OTHERS,False\nmp-19090,\"{'O': 12.0, 'Mn': 2.0, 'Mo': 2.0, 'Te': 2.0}\",\"('Mn', 'Mo', 'O', 'Te')\",OTHERS,False\nmp-1207317,\"{'U': 2.0, 'P': 3.0}\",\"('P', 'U')\",OTHERS,False\nmp-1184294,\"{'Fe': 2.0, 'Ag': 6.0}\",\"('Ag', 'Fe')\",OTHERS,False\nmp-13236,\"{'Si': 6.0, 'Ho': 10.0}\",\"('Ho', 'Si')\",OTHERS,False\nmp-862543,\"{'Sc': 2.0, 'Al': 1.0, 'Tc': 1.0}\",\"('Al', 'Sc', 'Tc')\",OTHERS,False\nmp-762282,\"{'Li': 3.0, 'Cr': 5.0, 'O': 10.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-1187636,\"{'Tm': 3.0, 'Hg': 1.0}\",\"('Hg', 'Tm')\",OTHERS,False\nmp-1080467,\"{'K': 1.0, 'Cd': 4.0, 'P': 3.0}\",\"('Cd', 'K', 'P')\",OTHERS,False\nmp-866031,\"{'Al': 2.0, 'Fe': 1.0, 'Ir': 1.0}\",\"('Al', 'Fe', 'Ir')\",OTHERS,False\nmp-1020636,\"{'Zn': 16.0, 'Si': 8.0, 'O': 32.0}\",\"('O', 'Si', 'Zn')\",OTHERS,False\nmp-24105,\"{'H': 2.0, 'O': 2.0, 'Co': 1.0}\",\"('Co', 'H', 'O')\",OTHERS,False\nmp-1103596,\"{'Ce': 1.0, 'Ge': 4.0, 'Rh': 6.0}\",\"('Ce', 'Ge', 'Rh')\",OTHERS,False\nmp-1186751,\"{'Pr': 1.0, 'Ho': 1.0, 'Tl': 2.0}\",\"('Ho', 'Pr', 'Tl')\",OTHERS,False\nmvc-12394,\"{'Mg': 4.0, 'Ti': 8.0, 'O': 16.0}\",\"('Mg', 'O', 'Ti')\",OTHERS,False\nmp-1198811,\"{'Ca': 4.0, 'Hg': 4.0, 'C': 16.0, 'S': 16.0, 'N': 16.0, 'O': 12.0}\",\"('C', 'Ca', 'Hg', 'N', 'O', 'S')\",OTHERS,False\nmp-1185886,\"{'Mg': 2.0, 'Hg': 4.0}\",\"('Hg', 'Mg')\",OTHERS,False\nmp-1247072,\"{'Ba': 12.0, 'Ru': 8.0, 'N': 16.0}\",\"('Ba', 'N', 'Ru')\",OTHERS,False\nmp-1147572,\"{'La': 2.0, 'Pd': 1.0, 'O': 2.0, 'F': 2.0}\",\"('F', 'La', 'O', 'Pd')\",OTHERS,False\nmp-1113362,\"{'Cs': 2.0, 'Ce': 1.0, 'Cu': 1.0, 'I': 6.0}\",\"('Ce', 'Cs', 'Cu', 'I')\",OTHERS,False\nmp-1018707,\"{'Gd': 2.0, 'Se': 4.0}\",\"('Gd', 'Se')\",OTHERS,False\nmp-765988,\"{'Li': 1.0, 'V': 1.0, 'Fe': 1.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('Fe', 'H', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1039915,\"{'Na': 1.0, 'Mg': 30.0, 'Si': 1.0, 'O': 32.0}\",\"('Mg', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1219577,\"{'Rb': 2.0, 'Ta': 4.0, 'O': 12.0}\",\"('O', 'Rb', 'Ta')\",OTHERS,False\nmp-11507,\"{'Ni': 4.0, 'Mo': 1.0}\",\"('Mo', 'Ni')\",OTHERS,False\nmp-1220452,\"{'Nb': 1.0, 'Cu': 3.0, 'Se': 2.0, 'S': 2.0}\",\"('Cu', 'Nb', 'S', 'Se')\",OTHERS,False\nmp-1183920,\"{'Cs': 1.0, 'Pa': 1.0, 'O': 3.0}\",\"('Cs', 'O', 'Pa')\",OTHERS,False\nmp-542884,\"{'S': 8.0, 'Rb': 8.0, 'Be': 4.0, 'O': 40.0, 'H': 16.0}\",\"('Be', 'H', 'O', 'Rb', 'S')\",OTHERS,False\nmp-754224,\"{'Ba': 2.0, 'Sr': 4.0, 'I': 12.0}\",\"('Ba', 'I', 'Sr')\",OTHERS,False\nmp-975422,\"{'Rb': 2.0, 'F': 6.0}\",\"('F', 'Rb')\",OTHERS,False\nmp-767435,\"{'P': 12.0, 'W': 8.0, 'O': 48.0}\",\"('O', 'P', 'W')\",OTHERS,False\nmp-1184260,\"{'Fe': 3.0, 'Cu': 1.0}\",\"('Cu', 'Fe')\",OTHERS,False\nmp-1202260,\"{'Lu': 4.0, 'Ni': 34.0}\",\"('Lu', 'Ni')\",OTHERS,False\nmp-759330,\"{'Rb': 16.0, 'Ge': 36.0, 'H': 60.0, 'N': 20.0}\",\"('Ge', 'H', 'N', 'Rb')\",OTHERS,False\nmp-674982,\"{'Li': 19.0, 'Mn': 5.0, 'N': 9.0}\",\"('Li', 'Mn', 'N')\",OTHERS,False\nmp-9295,\"{'Cu': 3.0, 'Te': 4.0, 'Ta': 1.0}\",\"('Cu', 'Ta', 'Te')\",OTHERS,False\nmp-31950,\"{'Li': 2.0, 'O': 24.0, 'P': 8.0, 'Mn': 2.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1197228,\"{'Ni': 2.0, 'P': 8.0, 'H': 36.0, 'C': 4.0, 'N': 4.0, 'O': 30.0}\",\"('C', 'H', 'N', 'Ni', 'O', 'P')\",OTHERS,False\nmp-18199,\"{'O': 4.0, 'As': 12.0, 'Sr': 12.0, 'Ta': 4.0}\",\"('As', 'O', 'Sr', 'Ta')\",OTHERS,False\nmp-1245716,\"{'Mg': 4.0, 'Re': 4.0, 'N': 8.0}\",\"('Mg', 'N', 'Re')\",OTHERS,False\nmp-685928,\"{'Rb': 10.0, 'Tc': 6.0, 'S': 14.0}\",\"('Rb', 'S', 'Tc')\",OTHERS,False\nmp-1218958,\"{'Sn': 1.0, 'Pb': 4.0, 'Se': 5.0}\",\"('Pb', 'Se', 'Sn')\",OTHERS,False\nmp-1103838,\"{'Pd': 4.0, 'Pb': 2.0, 'O': 8.0}\",\"('O', 'Pb', 'Pd')\",OTHERS,False\nmp-1013560,\"{'Ba': 3.0, 'As': 2.0}\",\"('As', 'Ba')\",OTHERS,False\nmp-1188045,\"{'Zr': 2.0, 'Mn': 6.0}\",\"('Mn', 'Zr')\",OTHERS,False\nmp-1227286,\"{'Ba': 1.0, 'Y': 1.0, 'Mn': 1.0, 'Co': 1.0, 'O': 5.0}\",\"('Ba', 'Co', 'Mn', 'O', 'Y')\",OTHERS,False\nmp-1227505,\"{'Ca': 1.0, 'V': 4.0, 'Co': 1.0, 'Cu': 2.0, 'O': 12.0}\",\"('Ca', 'Co', 'Cu', 'O', 'V')\",OTHERS,False\nmp-771121,\"{'La': 8.0, 'Hf': 4.0, 'O': 20.0}\",\"('Hf', 'La', 'O')\",OTHERS,False\nmp-767737,\"{'Co': 9.0, 'Cu': 3.0, 'O': 16.0}\",\"('Co', 'Cu', 'O')\",OTHERS,False\nmp-1245668,\"{'Cu': 2.0, 'As': 3.0}\",\"('As', 'Cu')\",OTHERS,False\nmp-1113444,\"{'Cs': 2.0, 'Tl': 1.0, 'Ag': 1.0, 'Br': 6.0}\",\"('Ag', 'Br', 'Cs', 'Tl')\",OTHERS,False\nmp-1196028,\"{'Lu': 8.0, 'B': 8.0, 'N': 8.0, 'O': 52.0}\",\"('B', 'Lu', 'N', 'O')\",OTHERS,False\nmp-1072114,\"{'Ho': 2.0, 'O': 2.0, 'F': 2.0}\",\"('F', 'Ho', 'O')\",OTHERS,False\nmp-1094261,\"{'Zr': 4.0, 'Sn': 4.0}\",\"('Sn', 'Zr')\",OTHERS,False\nmp-1217340,\"{'Th': 2.0, 'U': 2.0, 'B': 16.0}\",\"('B', 'Th', 'U')\",OTHERS,False\nmp-861594,\"{'Pr': 2.0, 'Tl': 1.0, 'Cd': 1.0}\",\"('Cd', 'Pr', 'Tl')\",OTHERS,False\nmp-32780,\"{'Au': 4.0, 'Cl': 4.0}\",\"('Au', 'Cl')\",OTHERS,False\nmp-1220382,\"{'Nb': 5.0, 'Se': 2.0, 'S': 2.0}\",\"('Nb', 'S', 'Se')\",OTHERS,False\nmp-1030467,\"{'Te': 4.0, 'Mo': 3.0, 'W': 1.0, 'S': 4.0}\",\"('Mo', 'S', 'Te', 'W')\",OTHERS,False\nmp-1216859,\"{'Ti': 2.0, 'Cr': 2.0, 'Sb': 2.0, 'O': 12.0}\",\"('Cr', 'O', 'Sb', 'Ti')\",OTHERS,False\nmp-1219677,\"{'Si': 18.0, 'C': 20.0, 'N': 2.0, 'O': 36.0}\",\"('C', 'N', 'O', 'Si')\",OTHERS,False\nmp-1196428,\"{'Rb': 4.0, 'B': 8.0, 'Se': 12.0, 'O': 40.0}\",\"('B', 'O', 'Rb', 'Se')\",OTHERS,False\nmp-763313,\"{'Li': 2.0, 'Co': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1223233,\"{'La': 4.0, 'V': 2.0, 'Fe': 2.0, 'O': 12.0}\",\"('Fe', 'La', 'O', 'V')\",OTHERS,False\nmp-622785,\"{'Fe': 16.0, 'S': 16.0, 'N': 16.0, 'O': 16.0}\",\"('Fe', 'N', 'O', 'S')\",OTHERS,False\nmp-768944,\"{'Li': 8.0, 'V': 8.0, 'B': 16.0, 'O': 40.0}\",\"('B', 'Li', 'O', 'V')\",OTHERS,False\nmp-1203099,\"{'Si': 12.0, 'O': 26.0}\",\"('O', 'Si')\",OTHERS,False\nmvc-10022,\"{'W': 4.0, 'O': 8.0}\",\"('O', 'W')\",OTHERS,False\nmp-768648,\"{'Li': 8.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-756332,\"{'Li': 2.0, 'Cr': 4.0, 'O': 6.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-546292,\"{'O': 2.0, 'Cl': 2.0, 'Yb': 2.0}\",\"('Cl', 'O', 'Yb')\",OTHERS,False\nmp-569673,\"{'Pr': 4.0, 'I': 8.0}\",\"('I', 'Pr')\",OTHERS,False\nmp-772624,\"{'Al': 8.0, 'C': 4.0, 'O': 4.0}\",\"('Al', 'C', 'O')\",OTHERS,False\nmp-21319,\"{'C': 1.0, 'Ce': 3.0, 'Tl': 1.0}\",\"('C', 'Ce', 'Tl')\",OTHERS,False\nmp-755771,\"{'Sr': 6.0, 'As': 4.0, 'O': 16.0}\",\"('As', 'O', 'Sr')\",OTHERS,False\nmp-1191945,\"{'Tb': 2.0, 'Fe': 17.0, 'N': 3.0}\",\"('Fe', 'N', 'Tb')\",OTHERS,False\nmp-10871,\"{'Al': 1.0, 'Au': 1.0}\",\"('Al', 'Au')\",OTHERS,False\nmp-1191664,\"{'Ta': 20.0, 'Ni': 4.0}\",\"('Ni', 'Ta')\",OTHERS,False\nmp-1481,\"{'Sn': 1.0, 'Te': 1.0}\",\"('Sn', 'Te')\",OTHERS,False\nmp-22175,\"{'C': 4.0, 'N': 4.0, 'S': 4.0, 'Eu': 2.0}\",\"('C', 'Eu', 'N', 'S')\",OTHERS,False\nmp-560038,\"{'Mn': 6.0, 'B': 14.0, 'I': 2.0, 'O': 26.0}\",\"('B', 'I', 'Mn', 'O')\",OTHERS,False\nmp-1208346,\"{'Tb': 4.0, 'Fe': 4.0, 'B': 16.0}\",\"('B', 'Fe', 'Tb')\",OTHERS,False\nmp-767279,\"{'Li': 4.0, 'Dy': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Dy', 'Li', 'O', 'P')\",OTHERS,False\nmp-1174794,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-640747,\"{'Sr': 12.0, 'Nb': 8.0, 'Co': 4.0, 'O': 36.0}\",\"('Co', 'Nb', 'O', 'Sr')\",OTHERS,False\nZn 58 Mg 40 Y 2,\"{'Zn': 58.0, 'Mg': 40.0, 'Y': 2.0}\",\"('Mg', 'Y', 'Zn')\",QC,False\nmp-560642,\"{'Na': 12.0, 'Sb': 4.0, 'P': 8.0, 'O': 36.0}\",\"('Na', 'O', 'P', 'Sb')\",OTHERS,False\nmp-644389,\"{'Li': 2.0, 'H': 2.0, 'Pd': 1.0}\",\"('H', 'Li', 'Pd')\",OTHERS,False\nmp-1079726,\"{'Zr': 4.0, 'Se': 2.0, 'N': 4.0}\",\"('N', 'Se', 'Zr')\",OTHERS,False\nZn 56.8 Er 8.7 Mg 34.6,\"{'Zn': 56.8, 'Er': 8.7, 'Mg': 34.6}\",\"('Er', 'Mg', 'Zn')\",QC,False\nmp-551283,\"{'O': 6.0, 'Cu': 2.0, 'Na': 2.0, 'Te': 1.0}\",\"('Cu', 'Na', 'O', 'Te')\",OTHERS,False\nmp-6501,\"{'O': 20.0, 'Zn': 4.0, 'Ba': 4.0, 'Ho': 8.0}\",\"('Ba', 'Ho', 'O', 'Zn')\",OTHERS,False\nmp-1195624,\"{'Ba': 12.0, 'Sb': 8.0, 'S': 28.0}\",\"('Ba', 'S', 'Sb')\",OTHERS,False\nmp-30943,\"{'Mg': 2.0, 'P': 2.0, 'Se': 6.0}\",\"('Mg', 'P', 'Se')\",OTHERS,False\nmp-1208029,\"{'Tm': 16.0, 'Mg': 4.0, 'Ni': 4.0}\",\"('Mg', 'Ni', 'Tm')\",OTHERS,False\nmp-699888,\"{'Na': 8.0, 'Ti': 4.0, 'Fe': 4.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'Na', 'O', 'P', 'Ti')\",OTHERS,False\nmp-764848,\"{'Li': 28.0, 'Mn': 10.0, 'F': 48.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-1182901,\"{'Al': 12.0, 'B': 10.0, 'O': 36.0}\",\"('Al', 'B', 'O')\",OTHERS,False\nmp-1201991,\"{'Yb': 2.0, 'N': 6.0, 'O': 28.0}\",\"('N', 'O', 'Yb')\",OTHERS,False\nmp-980949,\"{'W': 2.0, 'Cl': 8.0}\",\"('Cl', 'W')\",OTHERS,False\nCd 76 Ca 13,\"{'Cd': 76.0, 'Ca': 13.0}\",\"('Ca', 'Cd')\",AC,False\nmp-14391,\"{'O': 92.0, 'Na': 12.0, 'P': 32.0, 'V': 4.0}\",\"('Na', 'O', 'P', 'V')\",OTHERS,False\nmp-1245788,\"{'Ba': 2.0, 'Zn': 4.0, 'N': 4.0}\",\"('Ba', 'N', 'Zn')\",OTHERS,False\nmp-773007,\"{'Li': 2.0, 'Cu': 10.0, 'P': 4.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-866811,\"{'Ca': 4.0, 'Sn': 4.0, 'S': 12.0}\",\"('Ca', 'S', 'Sn')\",OTHERS,False\nmp-1184593,\"{'Ho': 2.0, 'Ir': 1.0, 'Pd': 1.0}\",\"('Ho', 'Ir', 'Pd')\",OTHERS,False\nmp-1185011,\"{'La': 3.0, 'Zr': 1.0}\",\"('La', 'Zr')\",OTHERS,False\nmp-1183543,\"{'Ca': 1.0, 'In': 1.0, 'O': 3.0}\",\"('Ca', 'In', 'O')\",OTHERS,False\nmp-1210770,\"{'Lu': 2.0, 'Ta': 10.0, 'Ag': 4.0, 'O': 30.0}\",\"('Ag', 'Lu', 'O', 'Ta')\",OTHERS,False\nmp-9029,\"{'N': 6.0, 'Ca': 6.0, 'V': 2.0}\",\"('Ca', 'N', 'V')\",OTHERS,False\nmp-1183442,\"{'Bi': 1.0, 'Pd': 2.0, 'Au': 1.0}\",\"('Au', 'Bi', 'Pd')\",OTHERS,False\nmp-703684,\"{'Mn': 1.0, 'H': 12.0, 'N': 2.0, 'Cl': 4.0, 'O': 2.0}\",\"('Cl', 'H', 'Mn', 'N', 'O')\",OTHERS,False\nmp-1205507,\"{'Eu': 2.0, 'Mg': 1.0, 'W': 1.0, 'O': 6.0}\",\"('Eu', 'Mg', 'O', 'W')\",OTHERS,False\nmp-1183201,\"{'Au': 3.0, 'Cl': 1.0}\",\"('Au', 'Cl')\",OTHERS,False\nmp-769008,\"{'Li': 8.0, 'Bi': 6.0, 'O': 16.0}\",\"('Bi', 'Li', 'O')\",OTHERS,False\nmp-1204674,\"{'Ni': 18.0, 'Te': 10.0, 'Pb': 12.0, 'O': 60.0}\",\"('Ni', 'O', 'Pb', 'Te')\",OTHERS,False\nmp-582159,\"{'Si': 8.0, 'Ni': 28.0, 'P': 20.0}\",\"('Ni', 'P', 'Si')\",OTHERS,False\nmp-17668,\"{'Ga': 14.0, 'Yb': 2.0, 'Au': 6.0}\",\"('Au', 'Ga', 'Yb')\",OTHERS,False\nmp-1213326,\"{'Cs': 2.0, 'Tm': 2.0, 'Nb': 12.0, 'Br': 36.0}\",\"('Br', 'Cs', 'Nb', 'Tm')\",OTHERS,False\nmp-30930,\"{'Al': 4.0, 'I': 12.0}\",\"('Al', 'I')\",OTHERS,False\nmp-757220,\"{'Lu': 2.0, 'H': 12.0, 'Cl': 6.0, 'O': 30.0}\",\"('Cl', 'H', 'Lu', 'O')\",OTHERS,False\nmp-1219669,\"{'Pu': 2.0, 'O': 3.0}\",\"('O', 'Pu')\",OTHERS,False\nmp-1213575,\"{'Er': 2.0, 'Zr': 12.0, 'P': 18.0, 'O': 72.0}\",\"('Er', 'O', 'P', 'Zr')\",OTHERS,False\nmp-972912,\"{'La': 3.0, 'Er': 1.0}\",\"('Er', 'La')\",OTHERS,False\nmp-720379,\"{'K': 6.0, 'Na': 2.0, 'P': 8.0, 'H': 8.0, 'O': 28.0}\",\"('H', 'K', 'Na', 'O', 'P')\",OTHERS,False\nmp-1247479,\"{'Zn': 10.0, 'Fe': 2.0, 'N': 8.0}\",\"('Fe', 'N', 'Zn')\",OTHERS,False\nmp-1097438,\"{'Hf': 2.0, 'Fe': 1.0, 'Co': 1.0}\",\"('Co', 'Fe', 'Hf')\",OTHERS,False\nmp-754496,\"{'Li': 20.0, 'Sb': 4.0, 'S': 4.0}\",\"('Li', 'S', 'Sb')\",OTHERS,False\nmp-730460,\"{'Na': 10.0, 'H': 6.0, 'C': 8.0, 'O': 24.0}\",\"('C', 'H', 'Na', 'O')\",OTHERS,False\nmp-695259,\"{'Ba': 6.0, 'Li': 2.0, 'Ti': 10.0, 'Sb': 6.0, 'O': 42.0}\",\"('Ba', 'Li', 'O', 'Sb', 'Ti')\",OTHERS,False\nmp-1213861,\"{'Co': 2.0, 'P': 4.0, 'O': 20.0}\",\"('Co', 'O', 'P')\",OTHERS,False\nmp-1182052,\"{'Ca': 10.0, 'P': 6.0, 'O': 24.0}\",\"('Ca', 'O', 'P')\",OTHERS,False\nmp-1025029,\"{'Pr': 2.0, 'H': 2.0, 'Se': 2.0}\",\"('H', 'Pr', 'Se')\",OTHERS,False\nmp-1094085,\"{'Nd': 3.0, 'Sn': 1.0, 'N': 1.0}\",\"('N', 'Nd', 'Sn')\",OTHERS,False\nmp-1186282,\"{'Nd': 3.0, 'Ti': 1.0}\",\"('Nd', 'Ti')\",OTHERS,False\nmp-676932,\"{'Eu': 2.0, 'Sr': 2.0, 'Li': 2.0, 'Te': 2.0, 'O': 12.0}\",\"('Eu', 'Li', 'O', 'Sr', 'Te')\",OTHERS,False\nmp-1194454,\"{'Si': 2.0, 'N': 8.0, 'O': 6.0, 'F': 12.0}\",\"('F', 'N', 'O', 'Si')\",OTHERS,False\nmp-1186932,\"{'Sc': 2.0, 'Ag': 1.0, 'Pt': 1.0}\",\"('Ag', 'Pt', 'Sc')\",OTHERS,False\nmp-779057,\"{'Li': 8.0, 'Fe': 8.0, 'B': 8.0, 'O': 28.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmvc-10387,\"{'Ba': 4.0, 'Zn': 4.0, 'Sn': 4.0, 'F': 28.0}\",\"('Ba', 'F', 'Sn', 'Zn')\",OTHERS,False\nmp-558446,\"{'Ag': 4.0, 'Hg': 4.0, 'S': 4.0, 'I': 4.0}\",\"('Ag', 'Hg', 'I', 'S')\",OTHERS,False\nmp-1228501,\"{'Ba': 3.0, 'La': 3.0, 'Cu': 6.0, 'O': 14.0}\",\"('Ba', 'Cu', 'La', 'O')\",OTHERS,False\nmp-23108,\"{'Na': 1.0, 'Cl': 6.0, 'Cs': 2.0, 'U': 1.0}\",\"('Cl', 'Cs', 'Na', 'U')\",OTHERS,False\nmp-715572,\"{'Fe': 16.0, 'O': 24.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-1078767,\"{'Hf': 3.0, 'Al': 3.0, 'Ni': 3.0}\",\"('Al', 'Hf', 'Ni')\",OTHERS,False\nmp-5438,\"{'B': 1.0, 'Rh': 3.0, 'Tm': 1.0}\",\"('B', 'Rh', 'Tm')\",OTHERS,False\nmp-647818,\"{'F': 12.0, 'Ni': 4.0, 'Cs': 2.0}\",\"('Cs', 'F', 'Ni')\",OTHERS,False\nmp-1212653,\"{'K': 12.0, 'Fe': 4.0, 'H': 12.0, 'C': 24.0, 'O': 48.0}\",\"('C', 'Fe', 'H', 'K', 'O')\",OTHERS,False\nmp-1066856,\"{'Ag': 2.0, 'O': 2.0}\",\"('Ag', 'O')\",OTHERS,False\nmp-1194844,\"{'Mg': 2.0, 'Bi': 4.0, 'I': 16.0, 'O': 16.0}\",\"('Bi', 'I', 'Mg', 'O')\",OTHERS,False\nmp-1106245,\"{'Zr': 10.0, 'Al': 2.0, 'Sb': 6.0}\",\"('Al', 'Sb', 'Zr')\",OTHERS,False\nmp-559713,\"{'Fe': 12.0, 'P': 16.0, 'O': 56.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-1215198,\"{'Zr': 1.0, 'U': 1.0, 'B': 24.0}\",\"('B', 'U', 'Zr')\",OTHERS,False\nmp-1185235,\"{'Li': 3.0, 'Rh': 1.0}\",\"('Li', 'Rh')\",OTHERS,False\nmp-1252085,\"{'Al': 1.0, 'W': 3.0, 'O': 8.0}\",\"('Al', 'O', 'W')\",OTHERS,False\nmp-1226663,\"{'Er': 18.0, 'B': 10.0, 'S': 42.0}\",\"('B', 'Er', 'S')\",OTHERS,False\nmp-765686,\"{'Li': 4.0, 'Co': 8.0, 'O': 2.0, 'F': 16.0}\",\"('Co', 'F', 'Li', 'O')\",OTHERS,False\nmp-753532,\"{'Nb': 4.0, 'O': 6.0, 'F': 4.0}\",\"('F', 'Nb', 'O')\",OTHERS,False\nmp-572,\"{'Cd': 1.0, 'Sm': 1.0}\",\"('Cd', 'Sm')\",OTHERS,False\nmp-1211442,\"{'Rb': 4.0, 'Pr': 4.0, 'Se': 8.0, 'O': 52.0}\",\"('O', 'Pr', 'Rb', 'Se')\",OTHERS,False\nmp-1228150,\"{'Ba': 3.0, 'La': 1.0, 'Nb': 3.0, 'O': 12.0}\",\"('Ba', 'La', 'Nb', 'O')\",OTHERS,False\nmp-754647,\"{'Li': 3.0, 'Al': 3.0, 'V': 3.0, 'O': 12.0}\",\"('Al', 'Li', 'O', 'V')\",OTHERS,False\nmp-999068,\"{'Ti': 2.0, 'Al': 1.0, 'V': 1.0}\",\"('Al', 'Ti', 'V')\",OTHERS,False\nmp-1202245,\"{'Yb': 24.0, 'Sn': 16.0, 'Pd': 16.0}\",\"('Pd', 'Sn', 'Yb')\",OTHERS,False\nZn 73.6 Mg 2.5 Sc 11.2,\"{'Zn': 73.6, 'Mg': 2.5, 'Sc': 11.2}\",\"('Mg', 'Sc', 'Zn')\",AC,False\nmp-8479,\"{'Si': 2.0, 'S': 8.0, 'Tl': 8.0}\",\"('S', 'Si', 'Tl')\",OTHERS,False\nmp-758188,\"{'Li': 8.0, 'Cr': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,False\nV 15 Ni 10 Si 1,\"{'V': 15.0, 'Ni': 10.0, 'Si': 1.0}\",\"('Ni', 'Si', 'V')\",QC,False\nmp-980757,\"{'Sm': 10.0, 'Sb': 6.0}\",\"('Sb', 'Sm')\",OTHERS,False\nmp-12494,\"{'Cd': 2.0, 'Te': 6.0, 'Cs': 2.0, 'Pr': 2.0}\",\"('Cd', 'Cs', 'Pr', 'Te')\",OTHERS,False\nmp-1100865,\"{'Yb': 10.0, 'Ti': 6.0, 'O': 27.0}\",\"('O', 'Ti', 'Yb')\",OTHERS,False\nmp-1181630,\"{'Er': 34.0, 'Te': 6.0, 'Ru': 12.0}\",\"('Er', 'Ru', 'Te')\",OTHERS,False\nmp-695295,\"{'H': 22.0, 'Ru': 1.0, 'N': 7.0, 'Cl': 4.0, 'O': 8.0}\",\"('Cl', 'H', 'N', 'O', 'Ru')\",OTHERS,False\nmp-755975,\"{'Li': 2.0, 'Ti': 1.0, 'V': 3.0, 'O': 8.0}\",\"('Li', 'O', 'Ti', 'V')\",OTHERS,False\nmp-1187453,\"{'Ti': 2.0, 'Al': 1.0, 'Ni': 1.0}\",\"('Al', 'Ni', 'Ti')\",OTHERS,False\nmp-772995,\"{'Li': 7.0, 'Ti': 12.0, 'Fe': 5.0, 'O': 32.0}\",\"('Fe', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-763535,\"{'Li': 1.0, 'P': 5.0, 'W': 3.0, 'O': 19.0}\",\"('Li', 'O', 'P', 'W')\",OTHERS,False\nmp-1198459,\"{'Nd': 8.0, 'S': 12.0, 'O': 64.0}\",\"('Nd', 'O', 'S')\",OTHERS,False\nmp-764838,\"{'K': 8.0, 'Co': 4.0, 'P': 16.0, 'H': 40.0, 'O': 68.0}\",\"('Co', 'H', 'K', 'O', 'P')\",OTHERS,False\nmp-561166,\"{'Na': 4.0, 'Zr': 2.0, 'Ge': 4.0, 'O': 14.0}\",\"('Ge', 'Na', 'O', 'Zr')\",OTHERS,False\nmp-753835,\"{'Li': 4.0, 'Mn': 8.0, 'O': 12.0, 'F': 4.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1224716,\"{'Fe': 2.0, 'Co': 1.0, 'Se': 4.0}\",\"('Co', 'Fe', 'Se')\",OTHERS,False\nmp-1027135,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1247400,\"{'Sr': 2.0, 'Os': 14.0, 'N': 20.0}\",\"('N', 'Os', 'Sr')\",OTHERS,False\nmvc-11660,\"{'Ca': 1.0, 'Co': 4.0, 'O': 8.0}\",\"('Ca', 'Co', 'O')\",OTHERS,False\nmp-30021,\"{'K': 5.0, 'Sb': 4.0}\",\"('K', 'Sb')\",OTHERS,False\nmp-757214,\"{'Li': 3.0, 'Ti': 1.0, 'Co': 3.0, 'O': 8.0}\",\"('Co', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-1076683,\"{'Ba': 12.0, 'Sr': 20.0, 'Co': 16.0, 'Cu': 16.0, 'O': 80.0}\",\"('Ba', 'Co', 'Cu', 'O', 'Sr')\",OTHERS,False\nmvc-10594,\"{'Ca': 2.0, 'Cr': 6.0, 'P': 6.0, 'O': 26.0}\",\"('Ca', 'Cr', 'O', 'P')\",OTHERS,False\nmp-554160,\"{'K': 8.0, 'Cu': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Cu', 'K', 'O', 'P')\",OTHERS,False\nmp-1221439,\"{'Na': 4.0, 'Li': 5.0, 'W': 10.0, 'O': 30.0}\",\"('Li', 'Na', 'O', 'W')\",OTHERS,False\nmp-1177825,\"{'Li': 8.0, 'V': 12.0, 'W': 4.0, 'O': 32.0}\",\"('Li', 'O', 'V', 'W')\",OTHERS,False\nmp-1225817,\"{'Dy': 2.0, 'Fe': 4.0, 'Co': 4.0, 'B': 2.0}\",\"('B', 'Co', 'Dy', 'Fe')\",OTHERS,False\nmp-753274,\"{'Fe': 8.0, 'O': 8.0, 'F': 8.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-571584,\"{'Li': 1.0, 'Mg': 1.0, 'Sb': 1.0, 'Pt': 1.0}\",\"('Li', 'Mg', 'Pt', 'Sb')\",OTHERS,False\nmp-1106202,\"{'Ce': 4.0, 'Zn': 10.0, 'Sn': 2.0}\",\"('Ce', 'Sn', 'Zn')\",OTHERS,False\nmp-1218525,\"{'Sr': 3.0, 'La': 1.0, 'Ti': 2.0, 'Mn': 2.0, 'O': 12.0}\",\"('La', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1225692,\"{'Cu': 4.0, 'Br': 1.0, 'Cl': 3.0}\",\"('Br', 'Cl', 'Cu')\",OTHERS,False\nmp-581601,\"{'Zn': 12.0, 'S': 12.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-603128,\"{'O': 28.0, 'Fe': 8.0, 'Sr': 4.0, 'Eu': 8.0}\",\"('Eu', 'Fe', 'O', 'Sr')\",OTHERS,False\nmp-556103,\"{'Cs': 18.0, 'Ga': 12.0, 'F': 54.0}\",\"('Cs', 'F', 'Ga')\",OTHERS,False\nmp-1095382,\"{'Fe': 5.0, 'O': 7.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-23602,\"{'Ta': 4.0, 'Bi': 16.0, 'Cl': 4.0, 'O': 32.0}\",\"('Bi', 'Cl', 'O', 'Ta')\",OTHERS,False\nmp-865797,\"{'Lu': 1.0, 'Co': 2.0, 'Sn': 1.0}\",\"('Co', 'Lu', 'Sn')\",OTHERS,False\nmp-756834,\"{'Ho': 4.0, 'Cr': 4.0, 'O': 12.0}\",\"('Cr', 'Ho', 'O')\",OTHERS,False\nmp-1216633,\"{'U': 1.0, 'Ru': 2.0, 'Rh': 1.0}\",\"('Rh', 'Ru', 'U')\",OTHERS,False\nmp-1227870,\"{'Ce': 4.0, 'Zr': 2.0, 'Co': 32.0}\",\"('Ce', 'Co', 'Zr')\",OTHERS,False\nmp-1101492,\"{'Li': 2.0, 'V': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-977552,\"{'Be': 3.0, 'Tc': 1.0}\",\"('Be', 'Tc')\",OTHERS,False\nmp-1200581,\"{'Bi': 16.0, 'B': 24.0, 'H': 8.0, 'O': 64.0}\",\"('B', 'Bi', 'H', 'O')\",OTHERS,False\nmp-998610,\"{'Tl': 1.0, 'Ag': 1.0, 'Cl': 3.0}\",\"('Ag', 'Cl', 'Tl')\",OTHERS,False\nmp-754833,\"{'Hf': 8.0, 'N': 8.0, 'O': 4.0}\",\"('Hf', 'N', 'O')\",OTHERS,False\nmp-1027286,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1228939,\"{'Al': 6.0, 'N': 2.0, 'O': 6.0}\",\"('Al', 'N', 'O')\",OTHERS,False\nmp-761589,\"{'Nb': 2.0, 'Co': 6.0, 'O': 16.0}\",\"('Co', 'Nb', 'O')\",OTHERS,False\nmp-567891,\"{'Nd': 1.0, 'Ag': 2.0}\",\"('Ag', 'Nd')\",OTHERS,False\nmp-17383,\"{'Ni': 8.0, 'Ge': 4.0}\",\"('Ge', 'Ni')\",OTHERS,False\nmp-541636,\"{'Er': 4.0, 'P': 16.0, 'K': 4.0, 'O': 48.0}\",\"('Er', 'K', 'O', 'P')\",OTHERS,False\nmp-1238486,\"{'Mn': 2.0, 'H': 6.0, 'C': 10.0, 'N': 2.0, 'O': 12.0}\",\"('C', 'H', 'Mn', 'N', 'O')\",OTHERS,False\nmp-1192886,\"{'Ni': 6.0, 'N': 6.0, 'F': 18.0}\",\"('F', 'N', 'Ni')\",OTHERS,False\nmp-674420,\"{'Li': 8.0, 'Ni': 4.0, 'O': 12.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmp-9630,\"{'S': 2.0, 'Cr': 1.0, 'Tl': 1.0}\",\"('Cr', 'S', 'Tl')\",OTHERS,False\nmp-865519,\"{'Y': 1.0, 'Ta': 1.0, 'Ru': 2.0}\",\"('Ru', 'Ta', 'Y')\",OTHERS,False\nmp-1245297,\"{'B': 50.0, 'N': 50.0}\",\"('B', 'N')\",OTHERS,False\nmp-21677,\"{'Ca': 6.0, 'Ni': 16.0, 'In': 8.0}\",\"('Ca', 'In', 'Ni')\",OTHERS,False\nmp-753593,\"{'Ti': 10.0, 'O': 13.0}\",\"('O', 'Ti')\",OTHERS,False\nmp-1244998,\"{'Ga': 50.0, 'N': 50.0}\",\"('Ga', 'N')\",OTHERS,False\nmp-771945,\"{'Sn': 1.0, 'P': 6.0, 'W': 3.0, 'O': 24.0}\",\"('O', 'P', 'Sn', 'W')\",OTHERS,False\nmp-761141,\"{'Li': 11.0, 'V': 12.0, 'Co': 4.0, 'O': 32.0}\",\"('Co', 'Li', 'O', 'V')\",OTHERS,False\nmp-559369,\"{'Zr': 4.0, 'H': 24.0, 'N': 20.0, 'O': 70.0}\",\"('H', 'N', 'O', 'Zr')\",OTHERS,False\nmp-3629,\"{'O': 48.0, 'Y': 8.0, 'W': 12.0}\",\"('O', 'W', 'Y')\",OTHERS,False\nmp-1095424,\"{'Pr': 4.0, 'Mn': 2.0, 'As': 5.0}\",\"('As', 'Mn', 'Pr')\",OTHERS,False\nmp-559676,\"{'Sn': 2.0, 'S': 2.0}\",\"('S', 'Sn')\",OTHERS,False\nMn 4 Si 1,\"{'Mn': 4.0, 'Si': 1.0}\",\"('Mn', 'Si')\",QC,False\nmp-862618,\"{'Li': 1.0, 'Er': 1.0, 'Hg': 2.0}\",\"('Er', 'Hg', 'Li')\",OTHERS,False\nmp-1206490,\"{'Nb': 4.0, 'B': 4.0, 'Mo': 2.0}\",\"('B', 'Mo', 'Nb')\",OTHERS,False\nmp-865877,\"{'Ti': 2.0, 'Re': 1.0, 'Pt': 1.0}\",\"('Pt', 'Re', 'Ti')\",OTHERS,False\nmp-1182555,\"{'Cd': 4.0, 'C': 28.0, 'S': 12.0, 'N': 16.0}\",\"('C', 'Cd', 'N', 'S')\",OTHERS,False\nmvc-1239,\"{'Zn': 4.0, 'Ni': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Ni', 'O', 'P', 'Zn')\",OTHERS,False\nmp-13654,\"{'Y': 6.0, 'Sb': 8.0, 'Au': 6.0}\",\"('Au', 'Sb', 'Y')\",OTHERS,False\nmp-1209357,\"{'Rb': 3.0, 'Y': 1.0, 'P': 2.0, 'O': 8.0}\",\"('O', 'P', 'Rb', 'Y')\",OTHERS,False\nmp-1186269,\"{'Nd': 3.0, 'Hf': 1.0}\",\"('Hf', 'Nd')\",OTHERS,False\nmp-1183324,\"{'Ba': 1.0, 'Sr': 3.0}\",\"('Ba', 'Sr')\",OTHERS,False\nmp-1222962,\"{'La': 1.0, 'Nd': 3.0, 'Mn': 4.0, 'O': 12.0}\",\"('La', 'Mn', 'Nd', 'O')\",OTHERS,False\nmp-1179999,\"{'Pb': 20.0, 'S': 2.0, 'O': 26.0, 'F': 4.0}\",\"('F', 'O', 'Pb', 'S')\",OTHERS,False\nmp-1177365,\"{'Li': 4.0, 'Nb': 3.0, 'Ni': 3.0, 'Te': 2.0, 'O': 16.0}\",\"('Li', 'Nb', 'Ni', 'O', 'Te')\",OTHERS,False\nmp-1224422,\"{'Hf': 6.0, 'Ga': 6.0, 'Pd': 4.0, 'Pt': 2.0}\",\"('Ga', 'Hf', 'Pd', 'Pt')\",OTHERS,False\nmp-755487,\"{'Li': 4.0, 'Bi': 2.0, 'O': 6.0}\",\"('Bi', 'Li', 'O')\",OTHERS,False\nmp-1200162,\"{'C': 164.0, 'F': 56.0}\",\"('C', 'F')\",OTHERS,False\nmp-1207159,\"{'Cs': 3.0, 'Eu': 1.0, 'F': 6.0}\",\"('Cs', 'Eu', 'F')\",OTHERS,False\nmp-1206697,\"{'Eu': 1.0, 'Ni': 1.0, 'P': 1.0}\",\"('Eu', 'Ni', 'P')\",OTHERS,False\nmp-1197353,\"{'Ba': 8.0, 'Li': 2.0, 'Ga': 10.0, 'Se': 24.0}\",\"('Ba', 'Ga', 'Li', 'Se')\",OTHERS,False\nmp-1191101,\"{'K': 4.0, 'Mg': 4.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'K', 'Mg', 'O')\",OTHERS,False\nmp-759946,\"{'Sc': 16.0, 'O': 15.0}\",\"('O', 'Sc')\",OTHERS,False\nmp-11500,\"{'Mn': 1.0, 'Ni': 1.0}\",\"('Mn', 'Ni')\",OTHERS,False\nmp-752802,\"{'Fe': 5.0, 'O': 4.0, 'F': 8.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1101055,\"{'Ta': 2.0, 'In': 2.0, 'S': 4.0}\",\"('In', 'S', 'Ta')\",OTHERS,False\nmp-721246,\"{'Sr': 12.0, 'Co': 2.0, 'C': 4.0, 'N': 14.0}\",\"('C', 'Co', 'N', 'Sr')\",OTHERS,False\nmp-989525,\"{'Cs': 2.0, 'Rb': 1.0, 'Pb': 1.0, 'F': 6.0}\",\"('Cs', 'F', 'Pb', 'Rb')\",OTHERS,False\nmp-696633,\"{'Ca': 10.0, 'Ta': 1.0, 'Ti': 8.0, 'Al': 1.0, 'Si': 10.0, 'O': 50.0}\",\"('Al', 'Ca', 'O', 'Si', 'Ta', 'Ti')\",OTHERS,False\nmp-775969,\"{'V': 3.0, 'Cr': 3.0, 'W': 2.0, 'O': 16.0}\",\"('Cr', 'O', 'V', 'W')\",OTHERS,False\nmp-5752,\"{'Si': 2.0, 'Tb': 1.0, 'Ir': 2.0}\",\"('Ir', 'Si', 'Tb')\",OTHERS,False\nmp-1208504,\"{'Tb': 3.0, 'Fe': 2.0, 'Si': 7.0}\",\"('Fe', 'Si', 'Tb')\",OTHERS,False\nmp-1223852,\"{'In': 1.0, 'Ga': 1.0, 'Ag': 2.0, 'S': 4.0}\",\"('Ag', 'Ga', 'In', 'S')\",OTHERS,False\nmp-1201586,\"{'Zr': 4.0, 'P': 8.0, 'O': 32.0}\",\"('O', 'P', 'Zr')\",OTHERS,False\nmp-12846,\"{'Ga': 4.0, 'Ge': 4.0, 'Yb': 4.0}\",\"('Ga', 'Ge', 'Yb')\",OTHERS,False\nmp-864800,\"{'Yb': 2.0, 'Pd': 1.0, 'Au': 1.0}\",\"('Au', 'Pd', 'Yb')\",OTHERS,False\nmp-1247225,\"{'Mg': 16.0, 'Ge': 4.0, 'N': 16.0}\",\"('Ge', 'Mg', 'N')\",OTHERS,False\nmp-761137,\"{'Li': 10.0, 'Ti': 3.0, 'Mn': 5.0, 'O': 16.0}\",\"('Li', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-1027091,\"{'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-780936,\"{'Li': 5.0, 'V': 6.0, 'O': 5.0, 'F': 19.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-1075363,\"{'Mg': 10.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-754998,\"{'Ce': 2.0, 'Se': 1.0, 'O': 2.0}\",\"('Ce', 'O', 'Se')\",OTHERS,False\nmp-743613,\"{'K': 1.0, 'Mn': 1.0, 'H': 5.0, 'S': 2.0, 'O': 10.0}\",\"('H', 'K', 'Mn', 'O', 'S')\",OTHERS,False\nmp-1202713,\"{'Ir': 8.0, 'Cl': 8.0, 'O': 8.0, 'F': 48.0}\",\"('Cl', 'F', 'Ir', 'O')\",OTHERS,False\nmp-22512,\"{'Sr': 4.0, 'In': 4.0, 'O': 10.0}\",\"('In', 'O', 'Sr')\",OTHERS,False\nmp-1210571,\"{'Na': 4.0, 'Cd': 6.0, 'P': 8.0, 'N': 2.0, 'Cl': 2.0, 'O': 28.0}\",\"('Cd', 'Cl', 'N', 'Na', 'O', 'P')\",OTHERS,False\nmp-676104,\"{'Tm': 4.0, 'Cu': 2.0, 'O': 8.0}\",\"('Cu', 'O', 'Tm')\",OTHERS,False\nmp-1207090,\"{'Cu': 1.0, 'Sn': 1.0, 'Pd': 2.0}\",\"('Cu', 'Pd', 'Sn')\",OTHERS,False\nmp-1211794,\"{'K': 2.0, 'Na': 1.0, 'O': 2.0}\",\"('K', 'Na', 'O')\",OTHERS,False\nmp-542121,\"{'Rb': 4.0, 'Nb': 2.0, 'Si': 8.0, 'O': 23.0}\",\"('Nb', 'O', 'Rb', 'Si')\",OTHERS,False\nmp-1214990,\"{'Ba': 4.0, 'C': 8.0, 'O': 24.0}\",\"('Ba', 'C', 'O')\",OTHERS,False\nmp-24333,\"{'H': 24.0, 'O': 12.0, 'Cl': 6.0, 'U': 2.0}\",\"('Cl', 'H', 'O', 'U')\",OTHERS,False\nmp-1102232,\"{'H': 4.0, 'C': 4.0, 'N': 4.0}\",\"('C', 'H', 'N')\",OTHERS,False\nmp-1215852,\"{'Yb': 1.0, 'Eu': 1.0, 'Si': 4.0, 'Au': 4.0}\",\"('Au', 'Eu', 'Si', 'Yb')\",OTHERS,False\nmp-1201518,\"{'K': 6.0, 'Fe': 10.0, 'F': 30.0}\",\"('F', 'Fe', 'K')\",OTHERS,False\nGa 3.22 Ni 2.78 Zr 1,\"{'Ga': 3.22, 'Ni': 2.78, 'Zr': 1.0}\",\"('Ga', 'Ni', 'Zr')\",AC,False\nZn 77 Sc 8 Ho 8 Fe 7,\"{'Zn': 77.0, 'Sc': 8.0, 'Ho': 8.0, 'Fe': 7.0}\",\"('Fe', 'Ho', 'Sc', 'Zn')\",QC,False\nmp-1193079,\"{'Nd': 4.0, 'Cu': 24.0}\",\"('Cu', 'Nd')\",OTHERS,False\nmp-1177831,\"{'Li': 4.0, 'V': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-16855,\"{'O': 26.0, 'Si': 4.0, 'K': 6.0, 'Ta': 6.0}\",\"('K', 'O', 'Si', 'Ta')\",OTHERS,False\nmp-774356,\"{'Li': 6.0, 'Mn': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1095397,\"{'Sn': 4.0, 'S': 8.0}\",\"('S', 'Sn')\",OTHERS,False\nmp-560925,\"{'Na': 10.0, 'Fe': 6.0, 'F': 28.0}\",\"('F', 'Fe', 'Na')\",OTHERS,False\nmp-1215427,\"{'Zn': 1.0, 'Cd': 1.0, 'Se': 2.0}\",\"('Cd', 'Se', 'Zn')\",OTHERS,False\nmp-19864,\"{'O': 12.0, 'Ca': 4.0, 'Fe': 2.0, 'W': 2.0}\",\"('Ca', 'Fe', 'O', 'W')\",OTHERS,False\nmp-766206,\"{'Sr': 1.0, 'Li': 4.0, 'La': 15.0, 'Co': 4.0, 'O': 32.0}\",\"('Co', 'La', 'Li', 'O', 'Sr')\",OTHERS,False\nmp-1101173,\"{'W': 2.0, 'N': 4.0}\",\"('N', 'W')\",OTHERS,False\nmp-644369,\"{'Ba': 2.0, 'Bi': 2.0, 'O': 6.0}\",\"('Ba', 'Bi', 'O')\",OTHERS,False\nmp-1201230,\"{'Bi': 4.0, 'Pb': 12.0, 'S': 18.0}\",\"('Bi', 'Pb', 'S')\",OTHERS,False\nmp-1190421,\"{'Cs': 2.0, 'Dy': 4.0, 'Ag': 6.0, 'Te': 10.0}\",\"('Ag', 'Cs', 'Dy', 'Te')\",OTHERS,False\nmp-1174284,\"{'Li': 6.0, 'Mn': 2.0, 'Co': 2.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-9575,\"{'Li': 2.0, 'Be': 2.0, 'Sb': 2.0}\",\"('Be', 'Li', 'Sb')\",OTHERS,False\nmp-22317,\"{'Ga': 4.0, 'Eu': 2.0}\",\"('Eu', 'Ga')\",OTHERS,False\nmp-1223853,\"{'K': 2.0, 'Zr': 1.0, 'P': 2.0, 'O': 8.0}\",\"('K', 'O', 'P', 'Zr')\",OTHERS,False\nmp-1232235,\"{'Pm': 1.0, 'S': 1.0}\",\"('Pm', 'S')\",OTHERS,False\nmp-530036,\"{'Tb': 22.0, 'S': 32.0}\",\"('S', 'Tb')\",OTHERS,False\nmp-1184742,\"{'Gd': 1.0, 'Zr': 1.0, 'Ru': 2.0}\",\"('Gd', 'Ru', 'Zr')\",OTHERS,False\nmp-1056027,{'K': 1.0},\"('K',)\",OTHERS,False\nmp-541971,\"{'Tm': 2.0, 'Ni': 12.0, 'P': 7.0}\",\"('Ni', 'P', 'Tm')\",OTHERS,False\nmp-30622,\"{'Ru': 4.0, 'Dy': 10.0}\",\"('Dy', 'Ru')\",OTHERS,False\nmp-558122,\"{'Gd': 4.0, 'S': 4.0, 'Cl': 4.0, 'O': 16.0}\",\"('Cl', 'Gd', 'O', 'S')\",OTHERS,False\nmp-640922,\"{'Ce': 3.0, 'In': 3.0, 'Pt': 3.0}\",\"('Ce', 'In', 'Pt')\",OTHERS,False\nmp-867315,\"{'Ca': 1.0, 'Gd': 1.0, 'Hg': 2.0}\",\"('Ca', 'Gd', 'Hg')\",OTHERS,False\nmp-12574,\"{'C': 1.0, 'Dy': 2.0}\",\"('C', 'Dy')\",OTHERS,False\nmp-758011,\"{'Li': 4.0, 'Fe': 8.0, 'Si': 8.0, 'O': 26.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-685153,\"{'Fe': 64.0, 'O': 96.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-1201969,\"{'Ce': 2.0, 'N': 16.0, 'O': 36.0}\",\"('Ce', 'N', 'O')\",OTHERS,False\nmp-30334,\"{'Al': 14.0, 'Th': 4.0}\",\"('Al', 'Th')\",OTHERS,False\nmp-505148,\"{'Th': 2.0, 'Pb': 2.0, 'I': 12.0}\",\"('I', 'Pb', 'Th')\",OTHERS,False\nmp-686004,\"{'Li': 12.0, 'Sc': 4.0, 'Cl': 24.0}\",\"('Cl', 'Li', 'Sc')\",OTHERS,False\nmp-30675,\"{'Ga': 8.0, 'Ti': 10.0}\",\"('Ga', 'Ti')\",OTHERS,False\nmp-1208788,\"{'Sr': 6.0, 'Ti': 2.0, 'Si': 8.0, 'H': 4.0, 'O': 26.0}\",\"('H', 'O', 'Si', 'Sr', 'Ti')\",OTHERS,False\nmp-677127,\"{'Y': 1.0, 'Al': 6.0, 'Si': 18.0, 'N': 30.0, 'O': 2.0}\",\"('Al', 'N', 'O', 'Si', 'Y')\",OTHERS,False\nmp-557824,\"{'Rb': 8.0, 'Re': 12.0, 'S': 24.0}\",\"('Rb', 'Re', 'S')\",OTHERS,False\nmp-581276,\"{'Cu': 4.0, 'Te': 4.0, 'Cl': 4.0, 'O': 10.0}\",\"('Cl', 'Cu', 'O', 'Te')\",OTHERS,False\nmp-1212761,\"{'Gd': 1.0, 'Fe': 4.0, 'P': 12.0}\",\"('Fe', 'Gd', 'P')\",OTHERS,False\nmp-1105942,\"{'Sm': 10.0, 'Ga': 6.0}\",\"('Ga', 'Sm')\",OTHERS,False\nmp-1219003,\"{'Sn': 8.0, 'Se': 4.0, 'S': 8.0}\",\"('S', 'Se', 'Sn')\",OTHERS,False\nmp-1226283,\"{'Cr': 1.0, 'W': 1.0, 'O': 3.0}\",\"('Cr', 'O', 'W')\",OTHERS,False\nmvc-9917,\"{'Mg': 6.0, 'Fe': 12.0, 'O': 24.0}\",\"('Fe', 'Mg', 'O')\",OTHERS,False\nZn 84 Ti 8 Mg 8,\"{'Zn': 84.0, 'Ti': 8.0, 'Mg': 8.0}\",\"('Mg', 'Ti', 'Zn')\",QC,False\nmp-976254,\"{'Li': 3.0, 'Mg': 1.0}\",\"('Li', 'Mg')\",OTHERS,False\nmp-1185144,\"{'K': 2.0, 'Th': 6.0}\",\"('K', 'Th')\",OTHERS,False\nmp-1208894,\"{'Sm': 4.0, 'Si': 10.0, 'Pd': 6.0}\",\"('Pd', 'Si', 'Sm')\",OTHERS,False\nmp-559162,\"{'Si': 4.0, 'B': 44.0, 'H': 40.0, 'C': 16.0, 'F': 44.0}\",\"('B', 'C', 'F', 'H', 'Si')\",OTHERS,False\nmp-777342,\"{'V': 8.0, 'O': 6.0, 'F': 18.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-972205,\"{'V': 2.0, 'Mo': 1.0, 'Os': 1.0}\",\"('Mo', 'Os', 'V')\",OTHERS,False\nmp-1205601,\"{'Yb': 4.0, 'Sn': 2.0, 'Pd': 4.0}\",\"('Pd', 'Sn', 'Yb')\",OTHERS,False\nmp-510400,\"{'Gd': 1.0, 'Ir': 3.0}\",\"('Gd', 'Ir')\",OTHERS,False\nmp-765840,\"{'Li': 4.0, 'V': 3.0, 'Co': 1.0, 'P': 4.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1228163,\"{'Ca': 1.0, 'Mn': 1.0, 'Zn': 1.0, 'As': 2.0, 'H': 3.0, 'O': 10.0}\",\"('As', 'Ca', 'H', 'Mn', 'O', 'Zn')\",OTHERS,False\nmp-759878,\"{'Rb': 2.0, 'Mg': 2.0, 'H': 24.0, 'Cl': 6.0, 'O': 12.0}\",\"('Cl', 'H', 'Mg', 'O', 'Rb')\",OTHERS,False\nmp-753083,\"{'Li': 3.0, 'Fe': 4.0, 'O': 8.0}\",\"('Fe', 'Li', 'O')\",OTHERS,False\nmp-1195598,\"{'Ba': 2.0, 'Er': 8.0, 'Si': 10.0, 'O': 34.0}\",\"('Ba', 'Er', 'O', 'Si')\",OTHERS,False\nmp-1177942,\"{'Li': 4.0, 'Hf': 4.0, 'O': 10.0}\",\"('Hf', 'Li', 'O')\",OTHERS,False\nmp-1095822,\"{'Zr': 2.0, 'Pt': 1.0, 'Rh': 1.0}\",\"('Pt', 'Rh', 'Zr')\",OTHERS,False\nmp-1199886,\"{'Sn': 4.0, 'Mo': 30.0, 'Se': 38.0}\",\"('Mo', 'Se', 'Sn')\",OTHERS,False\nmp-1072085,\"{'Ce': 1.0, 'Si': 5.0}\",\"('Ce', 'Si')\",OTHERS,False\nmp-6080,\"{'S': 10.0, 'Co': 2.0, 'Ba': 2.0, 'Nd': 4.0}\",\"('Ba', 'Co', 'Nd', 'S')\",OTHERS,False\nmp-567197,\"{'Y': 2.0, 'Sn': 2.0, 'Au': 2.0}\",\"('Au', 'Sn', 'Y')\",OTHERS,False\nmp-1104194,\"{'Ca': 1.0, 'Mo': 6.0, 'S': 8.0}\",\"('Ca', 'Mo', 'S')\",OTHERS,False\nmp-540391,\"{'O': 16.0, 'P': 4.0, 'Co': 4.0}\",\"('Co', 'O', 'P')\",OTHERS,False\nmp-1229080,\"{'Ce': 5.0, 'Cu': 19.0, 'P': 12.0}\",\"('Ce', 'Cu', 'P')\",OTHERS,False\nmp-1020638,\"{'Na': 8.0, 'P': 1.0, 'O': 3.0}\",\"('Na', 'O', 'P')\",OTHERS,False\nmp-542327,\"{'Ce': 5.0, 'Co': 19.0}\",\"('Ce', 'Co')\",OTHERS,False\nmp-1178789,\"{'V': 2.0, 'Zn': 1.0, 'O': 6.0}\",\"('O', 'V', 'Zn')\",OTHERS,False\nmp-614951,\"{'Rb': 9.0, 'N': 9.0, 'O': 27.0}\",\"('N', 'O', 'Rb')\",OTHERS,False\nmp-1247652,\"{'Ca': 32.0, 'Mn': 24.0, 'Cr': 8.0, 'O': 84.0}\",\"('Ca', 'Cr', 'Mn', 'O')\",OTHERS,False\nmp-614502,{'Gd': 1.0},\"('Gd',)\",OTHERS,False\nmp-557785,\"{'Mn': 2.0, 'H': 42.0, 'C': 14.0, 'S': 6.0, 'N': 2.0}\",\"('C', 'H', 'Mn', 'N', 'S')\",OTHERS,False\nmp-973633,\"{'Lu': 2.0, 'Si': 4.0, 'Ni': 2.0}\",\"('Lu', 'Ni', 'Si')\",OTHERS,False\nmp-1388,\"{'Rh': 4.0, 'Dy': 2.0}\",\"('Dy', 'Rh')\",OTHERS,False\nmp-9580,\"{'Ga': 2.0, 'Se': 4.0, 'Tl': 2.0}\",\"('Ga', 'Se', 'Tl')\",OTHERS,False\nmp-562517,\"{'Ca': 2.0, 'Mg': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Ca', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-982558,\"{'Ho': 1.0, 'Ge': 1.0, 'O': 3.0}\",\"('Ge', 'Ho', 'O')\",OTHERS,False\nmp-1218474,\"{'Sr': 3.0, 'Fe': 2.0, 'Ru': 1.0, 'O': 9.0}\",\"('Fe', 'O', 'Ru', 'Sr')\",OTHERS,False\nmp-1247135,\"{'Si': 14.0, 'Ge': 2.0, 'N': 20.0}\",\"('Ge', 'N', 'Si')\",OTHERS,False\nmp-30922,\"{'Co': 1.0, 'Ho': 6.0, 'Bi': 2.0}\",\"('Bi', 'Co', 'Ho')\",OTHERS,False\nmp-18562,\"{'Na': 8.0, 'Si': 8.0, 'Se': 20.0}\",\"('Na', 'Se', 'Si')\",OTHERS,False\nmvc-15567,\"{'Mg': 4.0, 'Fe': 4.0, 'O': 8.0}\",\"('Fe', 'Mg', 'O')\",OTHERS,False\nmp-1016146,\"{'Mg': 4.0, 'Mn': 16.0, 'O': 32.0}\",\"('Mg', 'Mn', 'O')\",OTHERS,False\nmp-571222,\"{'Cs': 1.0, 'Br': 1.0}\",\"('Br', 'Cs')\",OTHERS,False\nmp-510494,\"{'La': 10.0, 'Sn': 6.0}\",\"('La', 'Sn')\",OTHERS,False\nmp-998428,\"{'Cs': 4.0, 'Ca': 4.0, 'I': 12.0}\",\"('Ca', 'Cs', 'I')\",OTHERS,False\nmp-698214,\"{'K': 1.0, 'Mn': 1.0, 'H': 24.0, 'C': 14.0, 'N': 8.0}\",\"('C', 'H', 'K', 'Mn', 'N')\",OTHERS,False\nmvc-11373,\"{'Ca': 2.0, 'Mn': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Ca', 'Mn', 'O', 'W')\",OTHERS,False\nmp-1223474,\"{'K': 2.0, 'H': 2.0, 'C': 2.0, 'O': 6.0}\",\"('C', 'H', 'K', 'O')\",OTHERS,False\nmp-1199576,\"{'U': 12.0, 'Ag': 8.0, 'Ge': 8.0, 'O': 64.0}\",\"('Ag', 'Ge', 'O', 'U')\",OTHERS,False\nmp-1186222,\"{'Nb': 1.0, 'Ga': 1.0, 'Os': 2.0}\",\"('Ga', 'Nb', 'Os')\",OTHERS,False\nmvc-3251,\"{'Zn': 2.0, 'Cr': 2.0, 'P': 2.0, 'O': 10.0}\",\"('Cr', 'O', 'P', 'Zn')\",OTHERS,False\nmp-1039906,\"{'Sr': 1.0, 'Mg': 30.0, 'Si': 1.0, 'O': 32.0}\",\"('Mg', 'O', 'Si', 'Sr')\",OTHERS,False\nmp-705842,\"{'Fe': 9.0, 'Cu': 3.0, 'O': 16.0}\",\"('Cu', 'Fe', 'O')\",OTHERS,False\nmp-1068732,\"{'Th': 1.0, 'Si': 3.0, 'Ru': 1.0}\",\"('Ru', 'Si', 'Th')\",OTHERS,False\nmp-649616,\"{'Pd': 4.0, 'Xe': 8.0, 'F': 64.0}\",\"('F', 'Pd', 'Xe')\",OTHERS,False\nmp-532701,\"{'In': 2.0, 'Mg': 6.0, 'Na': 6.0, 'O': 48.0, 'S': 12.0}\",\"('In', 'Mg', 'Na', 'O', 'S')\",OTHERS,False\nmp-559328,\"{'Fe': 4.0, 'H': 16.0, 'C': 12.0, 'O': 20.0}\",\"('C', 'Fe', 'H', 'O')\",OTHERS,False\nmp-1097636,\"{'Ti': 1.0, 'Zn': 2.0, 'Pt': 1.0}\",\"('Pt', 'Ti', 'Zn')\",OTHERS,False\nmvc-3773,\"{'Y': 6.0, 'Ni': 6.0, 'O': 18.0}\",\"('Ni', 'O', 'Y')\",OTHERS,False\nmp-758950,\"{'V': 4.0, 'O': 5.0, 'F': 7.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-677288,\"{'Mg': 5.0, 'Al': 1.0, 'H': 21.0, 'O': 17.0}\",\"('Al', 'H', 'Mg', 'O')\",OTHERS,False\nmp-1183610,\"{'Ca': 2.0, 'Sm': 6.0}\",\"('Ca', 'Sm')\",OTHERS,False\nmp-976596,\"{'Li': 1.0, 'Lu': 2.0, 'Ga': 1.0}\",\"('Ga', 'Li', 'Lu')\",OTHERS,False\nmp-775441,\"{'Li': 4.0, 'V': 3.0, 'Fe': 3.0, 'Sb': 2.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Sb', 'V')\",OTHERS,False\nmvc-12661,\"{'Zn': 4.0, 'Fe': 8.0, 'O': 16.0}\",\"('Fe', 'O', 'Zn')\",OTHERS,False\nmp-1228165,\"{'Al': 5.0, 'Se': 8.0}\",\"('Al', 'Se')\",OTHERS,False\nmp-1032984,\"{'Ca': 1.0, 'Mg': 6.0, 'Ni': 1.0, 'O': 8.0}\",\"('Ca', 'Mg', 'Ni', 'O')\",OTHERS,False\nmp-532676,\"{'Al': 6.0, 'Li': 2.0, 'Mg': 2.0, 'O': 48.0, 'Se': 12.0}\",\"('Al', 'Li', 'Mg', 'O', 'Se')\",OTHERS,False\nmp-1210779,\"{'Mo': 2.0, 'C': 8.0, 'O': 8.0, 'F': 12.0}\",\"('C', 'F', 'Mo', 'O')\",OTHERS,False\nmp-1193682,\"{'Mo': 4.0, 'S': 16.0, 'N': 8.0}\",\"('Mo', 'N', 'S')\",OTHERS,False\nmp-559427,\"{'Ba': 2.0, 'Sr': 8.0, 'U': 6.0, 'O': 28.0}\",\"('Ba', 'O', 'Sr', 'U')\",OTHERS,False\nmp-774931,\"{'Li': 2.0, 'La': 28.0, 'Cu': 12.0, 'O': 56.0}\",\"('Cu', 'La', 'Li', 'O')\",OTHERS,False\nmp-677056,\"{'Na': 6.0, 'U': 3.0, 'I': 18.0}\",\"('I', 'Na', 'U')\",OTHERS,False\nmp-559091,\"{'Si': 4.0, 'O': 8.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1226939,\"{'Cd': 2.0, 'Te': 1.0, 'Se': 1.0}\",\"('Cd', 'Se', 'Te')\",OTHERS,False\nmp-849316,\"{'Co': 6.0, 'O': 2.0, 'F': 10.0}\",\"('Co', 'F', 'O')\",OTHERS,False\nmp-765543,\"{'Sr': 3.0, 'Rh': 16.0, 'O': 32.0}\",\"('O', 'Rh', 'Sr')\",OTHERS,False\nmp-772890,\"{'Np': 4.0, 'Se': 8.0, 'O': 24.0}\",\"('Np', 'O', 'Se')\",OTHERS,False\nmp-775275,\"{'Mn': 3.0, 'Sb': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Mn', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1185726,\"{'Mg': 16.0, 'Sc': 1.0, 'Al': 12.0}\",\"('Al', 'Mg', 'Sc')\",OTHERS,False\nmp-863365,\"{'Li': 4.0, 'Sn': 2.0, 'P': 8.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-28611,\"{'O': 14.0, 'Ta': 4.0, 'Th': 2.0}\",\"('O', 'Ta', 'Th')\",OTHERS,False\nmp-1212398,\"{'Li': 8.0, 'Eu': 20.0, 'Sn': 28.0}\",\"('Eu', 'Li', 'Sn')\",OTHERS,False\nmp-1199190,\"{'Ba': 12.0, 'Bi': 3.0, 'Ir': 9.0, 'O': 36.0}\",\"('Ba', 'Bi', 'Ir', 'O')\",OTHERS,False\nmp-1071163,\"{'Ti': 3.0, 'O': 3.0}\",\"('O', 'Ti')\",OTHERS,False\nmp-1079725,\"{'Er': 6.0, 'Co': 1.0, 'Te': 2.0}\",\"('Co', 'Er', 'Te')\",OTHERS,False\nmp-21109,\"{'La': 3.0, 'Al': 12.0}\",\"('Al', 'La')\",OTHERS,False\nmp-1202524,\"{'K': 4.0, 'Cu': 2.0, 'H': 28.0, 'C': 8.0, 'N': 12.0, 'O': 16.0}\",\"('C', 'Cu', 'H', 'K', 'N', 'O')\",OTHERS,False\nmp-867863,\"{'Sm': 1.0, 'Cu': 4.0, 'Ag': 1.0}\",\"('Ag', 'Cu', 'Sm')\",OTHERS,False\nmp-1001612,\"{'Lu': 2.0, 'Si': 2.0}\",\"('Lu', 'Si')\",OTHERS,False\nmp-559235,\"{'B': 2.0, 'H': 22.0, 'C': 8.0, 'N': 2.0, 'Cl': 2.0, 'F': 8.0}\",\"('B', 'C', 'Cl', 'F', 'H', 'N')\",OTHERS,False\nmp-768605,\"{'Ho': 8.0, 'Ti': 4.0, 'O': 20.0}\",\"('Ho', 'O', 'Ti')\",OTHERS,False\nmp-6977,\"{'Be': 6.0, 'N': 4.0}\",\"('Be', 'N')\",OTHERS,False\nAl 70 Pd 23 Mn 6 Si 1,\"{'Al': 70.0, 'Pd': 23.0, 'Mn': 6.0, 'Si': 1.0}\",\"('Al', 'Mn', 'Pd', 'Si')\",AC,False\nmp-755442,\"{'Mn': 4.0, 'Co': 1.0, 'O': 8.0}\",\"('Co', 'Mn', 'O')\",OTHERS,False\nmp-1215570,\"{'Zr': 3.0, 'Sn': 4.0, 'Sb': 2.0}\",\"('Sb', 'Sn', 'Zr')\",OTHERS,False\nmp-1177309,\"{'Li': 8.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-772840,\"{'Sm': 8.0, 'Ge': 8.0, 'O': 28.0}\",\"('Ge', 'O', 'Sm')\",OTHERS,False\nmp-5709,\"{'O': 8.0, 'P': 2.0, 'Tl': 6.0}\",\"('O', 'P', 'Tl')\",OTHERS,False\nmp-1232230,\"{'Eu': 2.0, 'Se': 4.0}\",\"('Eu', 'Se')\",OTHERS,False\nmp-705895,\"{'Ba': 2.0, 'Nb': 4.0, 'Fe': 4.0, 'P': 12.0, 'O': 48.0}\",\"('Ba', 'Fe', 'Nb', 'O', 'P')\",OTHERS,False\nmp-619575,\"{'Cl': 8.0, 'F': 24.0}\",\"('Cl', 'F')\",OTHERS,False\nmp-697144,\"{'Rb': 2.0, 'H': 4.0, 'N': 2.0}\",\"('H', 'N', 'Rb')\",OTHERS,False\nmp-1223497,\"{'La': 2.0, 'Ge': 4.0, 'Pd': 3.0, 'Pt': 1.0}\",\"('Ge', 'La', 'Pd', 'Pt')\",OTHERS,False\nmp-1222541,\"{'Li': 4.0, 'Fe': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1076543,\"{'Ca': 7.0, 'Mg': 1.0, 'Ti': 1.0, 'Mn': 7.0, 'O': 24.0}\",\"('Ca', 'Mg', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-20989,\"{'Ba': 1.0, 'Gd': 1.0, 'Fe': 2.0, 'O': 5.0}\",\"('Ba', 'Fe', 'Gd', 'O')\",OTHERS,False\nmp-862840,\"{'Pr': 11.0, 'In': 9.0, 'Ni': 4.0}\",\"('In', 'Ni', 'Pr')\",OTHERS,False\nAu 47.2 In 37.2 Gd 15.6,\"{'Au': 47.2, 'In': 37.2, 'Gd': 15.6}\",\"('Au', 'Gd', 'In')\",AC,False\nmp-18343,\"{'O': 28.0, 'Mg': 4.0, 'P': 8.0, 'Ba': 4.0}\",\"('Ba', 'Mg', 'O', 'P')\",OTHERS,False\nmp-754365,\"{'Li': 4.0, 'Cr': 4.0, 'O': 14.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-1104364,\"{'Cd': 2.0, 'Br': 4.0, 'O': 8.0}\",\"('Br', 'Cd', 'O')\",OTHERS,False\nmp-1178324,\"{'Fe': 6.0, 'O': 2.0, 'F': 14.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-11102,\"{'Rh': 4.0, 'In': 4.0, 'Yb': 4.0}\",\"('In', 'Rh', 'Yb')\",OTHERS,False\nmp-1232260,\"{'Mg': 4.0, 'In': 8.0, 'S': 16.0}\",\"('In', 'Mg', 'S')\",OTHERS,False\nmp-1209414,\"{'Sm': 8.0, 'Mn': 2.0, 'S': 14.0}\",\"('Mn', 'S', 'Sm')\",OTHERS,False\nmp-510570,\"{'Ca': 1.0, 'Mn': 4.0, 'Cu': 3.0, 'O': 12.0}\",\"('Ca', 'Cu', 'Mn', 'O')\",OTHERS,False\nmp-1192361,\"{'Zn': 22.0, 'Co': 4.0}\",\"('Co', 'Zn')\",OTHERS,False\nGa 3.64 Ni 2.36 Sc 1,\"{'Ga': 3.64, 'Ni': 2.36, 'Sc': 1.0}\",\"('Ga', 'Ni', 'Sc')\",AC,False\nmp-1200625,\"{'Ba': 2.0, 'Ti': 2.0, 'Mn': 4.0, 'Si': 4.0, 'O': 20.0}\",\"('Ba', 'Mn', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-1033061,\"{'Ba': 1.0, 'Mg': 6.0, 'Al': 1.0, 'O': 8.0}\",\"('Al', 'Ba', 'Mg', 'O')\",OTHERS,False\nmp-756259,\"{'Li': 4.0, 'Mn': 5.0, 'Nb': 1.0, 'O': 12.0}\",\"('Li', 'Mn', 'Nb', 'O')\",OTHERS,False\nmp-1187499,\"{'Ti': 1.0, 'Mn': 1.0, 'Ir': 2.0}\",\"('Ir', 'Mn', 'Ti')\",OTHERS,False\nmp-1176872,\"{'Li': 14.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1193772,\"{'Tl': 8.0, 'Cr': 4.0, 'O': 16.0}\",\"('Cr', 'O', 'Tl')\",OTHERS,False\nmp-1212777,\"{'K': 24.0, 'Ge': 48.0, 'O': 96.0}\",\"('Ge', 'K', 'O')\",OTHERS,False\nmp-17562,\"{'B': 6.0, 'O': 18.0, 'Sc': 2.0, 'Sr': 6.0}\",\"('B', 'O', 'Sc', 'Sr')\",OTHERS,False\nmp-1213601,\"{'Dy': 22.0, 'Ge': 36.0}\",\"('Dy', 'Ge')\",OTHERS,False\nmp-557611,\"{'Mn': 4.0, 'Si': 4.0, 'Pb': 4.0, 'O': 18.0}\",\"('Mn', 'O', 'Pb', 'Si')\",OTHERS,False\nmp-1038735,\"{'Cs': 1.0, 'Mg': 30.0, 'Bi': 1.0, 'O': 32.0}\",\"('Bi', 'Cs', 'Mg', 'O')\",OTHERS,False\nmp-1216009,\"{'Y': 2.0, 'Lu': 2.0, 'Ga': 12.0}\",\"('Ga', 'Lu', 'Y')\",OTHERS,False\nmp-10334,\"{'P': 6.0, 'Cd': 6.0, 'Pr': 2.0}\",\"('Cd', 'P', 'Pr')\",OTHERS,False\nmp-1179679,\"{'Rb': 2.0, 'P': 2.0}\",\"('P', 'Rb')\",OTHERS,False\nmp-1203086,\"{'Sr': 18.0, 'W': 6.0, 'O': 36.0}\",\"('O', 'Sr', 'W')\",OTHERS,False\nmp-559644,\"{'K': 8.0, 'Cu': 4.0, 'P': 12.0, 'S': 36.0}\",\"('Cu', 'K', 'P', 'S')\",OTHERS,False\nmp-648893,\"{'Na': 32.0, 'V': 16.0, 'O': 56.0}\",\"('Na', 'O', 'V')\",OTHERS,False\nmp-1214545,\"{'Ba': 10.0, 'As': 6.0, 'S': 2.0, 'O': 24.0}\",\"('As', 'Ba', 'O', 'S')\",OTHERS,False\nmp-1186437,\"{'Pd': 3.0, 'W': 1.0}\",\"('Pd', 'W')\",OTHERS,False\nmp-93,{'U': 30.0},\"('U',)\",OTHERS,False\nmp-759155,\"{'Li': 8.0, 'Fe': 8.0, 'C': 8.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1195788,\"{'K': 8.0, 'Mo': 8.0, 'Se': 8.0, 'O': 44.0}\",\"('K', 'Mo', 'O', 'Se')\",OTHERS,False\nmp-740930,\"{'La': 2.0, 'P': 6.0, 'H': 12.0, 'O': 12.0}\",\"('H', 'La', 'O', 'P')\",OTHERS,False\nmp-1195859,\"{'Na': 2.0, 'B': 2.0, 'H': 68.0, 'C': 24.0, 'N': 8.0}\",\"('B', 'C', 'H', 'N', 'Na')\",OTHERS,False\nmp-550745,\"{'O': 6.0, 'Fe': 1.0, 'Bi': 2.0, 'Ti': 1.0}\",\"('Bi', 'Fe', 'O', 'Ti')\",OTHERS,False\nmp-1200868,\"{'La': 8.0, 'P': 18.0, 'Rh': 16.0}\",\"('La', 'P', 'Rh')\",OTHERS,False\nmp-4856,\"{'Co': 1.0, 'Ga': 5.0, 'Ho': 1.0}\",\"('Co', 'Ga', 'Ho')\",OTHERS,False\nmp-1091398,\"{'Y': 3.0, 'Si': 3.0, 'Ag': 3.0}\",\"('Ag', 'Si', 'Y')\",OTHERS,False\nmp-775999,\"{'Li': 4.0, 'Ti': 3.0, 'Nb': 2.0, 'Fe': 3.0, 'O': 16.0}\",\"('Fe', 'Li', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-1246548,\"{'In': 1.0, 'Fe': 2.0, 'N': 2.0}\",\"('Fe', 'In', 'N')\",OTHERS,False\nmp-768082,\"{'Na': 10.0, 'Ni': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Na', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1195803,\"{'Na': 12.0, 'Nb': 12.0, 'O': 36.0}\",\"('Na', 'Nb', 'O')\",OTHERS,False\nmp-1106224,\"{'Mn': 4.0, 'V': 4.0, 'O': 12.0}\",\"('Mn', 'O', 'V')\",OTHERS,False\nmp-1212897,\"{'Er': 8.0, 'Si': 12.0, 'Pd': 4.0}\",\"('Er', 'Pd', 'Si')\",OTHERS,False\nmp-1026016,\"{'Te': 2.0, 'Mo': 2.0, 'W': 1.0, 'Se': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1036160,\"{'Sr': 1.0, 'Mg': 14.0, 'Mn': 1.0, 'O': 16.0}\",\"('Mg', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-676338,\"{'Mg': 2.0, 'In': 4.0, 'O': 8.0}\",\"('In', 'Mg', 'O')\",OTHERS,False\nmp-1180166,\"{'Na': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Na', 'O', 'P')\",OTHERS,False\nmp-754322,\"{'Sr': 2.0, 'Cu': 1.0, 'O': 4.0}\",\"('Cu', 'O', 'Sr')\",OTHERS,False\nmp-1211441,\"{'Nd': 46.0, 'Mg': 8.0, 'Ni': 14.0}\",\"('Mg', 'Nd', 'Ni')\",OTHERS,False\nmvc-4829,\"{'Zn': 2.0, 'Mo': 4.0, 'O': 8.0}\",\"('Mo', 'O', 'Zn')\",OTHERS,False\nmp-639789,\"{'Fe': 8.0, 'Re': 12.0}\",\"('Fe', 'Re')\",OTHERS,False\nmp-974950,\"{'Rb': 3.0, 'Li': 1.0}\",\"('Li', 'Rb')\",OTHERS,False\nmvc-2902,\"{'Ca': 8.0, 'Ti': 10.0, 'Te': 6.0, 'O': 36.0}\",\"('Ca', 'O', 'Te', 'Ti')\",OTHERS,False\nmp-1177125,\"{'Li': 5.0, 'Fe': 3.0, 'O': 2.0, 'F': 10.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-755735,\"{'Li': 2.0, 'Co': 4.0, 'O': 3.0, 'F': 8.0}\",\"('Co', 'F', 'Li', 'O')\",OTHERS,False\nmp-758939,\"{'Li': 4.0, 'Fe': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1224991,\"{'K': 2.0, 'Na': 2.0, 'Ca': 4.0, 'Mg': 15.0, 'Si': 24.0, 'O': 72.0}\",\"('Ca', 'K', 'Mg', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1185553,\"{'Cs': 3.0, 'Hg': 1.0}\",\"('Cs', 'Hg')\",OTHERS,False\nmp-1191623,\"{'Ce': 2.0, 'Ni': 12.0, 'As': 7.0}\",\"('As', 'Ce', 'Ni')\",OTHERS,False\nmp-1094363,\"{'Y': 3.0, 'Mg': 3.0}\",\"('Mg', 'Y')\",OTHERS,False\nmp-3141,\"{'Rh': 3.0, 'In': 3.0, 'Er': 3.0}\",\"('Er', 'In', 'Rh')\",OTHERS,False\nmp-12789,\"{'Al': 20.0, 'Fe': 4.0, 'Yb': 2.0}\",\"('Al', 'Fe', 'Yb')\",OTHERS,False\nMg 43 Al 42 Pd 15,\"{'Mg': 43.0, 'Al': 42.0, 'Pd': 15.0}\",\"('Al', 'Mg', 'Pd')\",QC,False\nmp-541318,\"{'Cs': 2.0, 'Ti': 6.0, 'P': 12.0, 'Si': 4.0, 'O': 50.0}\",\"('Cs', 'O', 'P', 'Si', 'Ti')\",OTHERS,False\nmp-1182147,\"{'C': 4.0, 'S': 4.0, 'N': 8.0}\",\"('C', 'N', 'S')\",OTHERS,False\nmp-1184781,\"{'In': 1.0, 'Ge': 3.0}\",\"('Ge', 'In')\",OTHERS,False\nmp-864926,\"{'Hf': 1.0, 'Pa': 1.0, 'Tc': 2.0}\",\"('Hf', 'Pa', 'Tc')\",OTHERS,False\nmp-38950,\"{'Ce': 4.0, 'O': 14.0, 'Y': 4.0}\",\"('Ce', 'O', 'Y')\",OTHERS,False\nmvc-34,\"{'Mn': 4.0, 'S': 8.0}\",\"('Mn', 'S')\",OTHERS,False\nmp-1177986,\"{'Li': 2.0, 'Fe': 1.0, 'S': 2.0}\",\"('Fe', 'Li', 'S')\",OTHERS,False\nmp-980189,\"{'Yb': 3.0, 'Na': 1.0}\",\"('Na', 'Yb')\",OTHERS,False\nmp-1184097,\"{'Er': 2.0, 'Cu': 1.0, 'Tc': 1.0}\",\"('Cu', 'Er', 'Tc')\",OTHERS,False\nmp-1220765,\"{'Na': 2.0, 'Hf': 6.0, 'N': 6.0, 'Cl': 6.0}\",\"('Cl', 'Hf', 'N', 'Na')\",OTHERS,False\nmp-2398,\"{'Sc': 4.0, 'Sn': 8.0}\",\"('Sc', 'Sn')\",OTHERS,False\nmp-8249,\"{'P': 2.0, 'S': 6.0, 'Tl': 2.0}\",\"('P', 'S', 'Tl')\",OTHERS,False\nmp-1252404,\"{'Ba': 2.0, 'Al': 2.0, 'Ni': 8.0, 'O': 14.0}\",\"('Al', 'Ba', 'Ni', 'O')\",OTHERS,False\nmp-698580,\"{'Co': 7.0, 'Re': 17.0, 'O': 48.0}\",\"('Co', 'O', 'Re')\",OTHERS,False\nmp-1095669,\"{'Hf': 4.0, 'Tc': 8.0}\",\"('Hf', 'Tc')\",OTHERS,False\nmp-1076439,\"{'Ba': 4.0, 'Co': 4.0, 'O': 10.0}\",\"('Ba', 'Co', 'O')\",OTHERS,False\nmp-1205088,\"{'La': 26.0, 'Hg': 116.0}\",\"('Hg', 'La')\",OTHERS,False\nmp-11140,\"{'Sb': 20.0, 'Ho': 8.0}\",\"('Ho', 'Sb')\",OTHERS,False\nmp-1182477,\"{'As': 1.0, 'N': 1.0, 'O': 2.0, 'F': 6.0}\",\"('As', 'F', 'N', 'O')\",OTHERS,False\nmp-768437,\"{'Li': 8.0, 'Bi': 4.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Bi', 'Li', 'O')\",OTHERS,False\nmp-554911,\"{'K': 2.0, 'Mn': 2.0, 'Zn': 4.0, 'Si': 4.0, 'O': 15.0}\",\"('K', 'Mn', 'O', 'Si', 'Zn')\",OTHERS,False\nmp-1079272,\"{'Sr': 2.0, 'Zr': 1.0, 'V': 1.0, 'O': 6.0}\",\"('O', 'Sr', 'V', 'Zr')\",OTHERS,False\nmp-1095833,\"{'Tl': 2.0, 'Hg': 1.0, 'Te': 1.0}\",\"('Hg', 'Te', 'Tl')\",OTHERS,False\nmp-1027058,\"{'Te': 4.0, 'Mo': 2.0, 'W': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Te', 'W')\",OTHERS,False\nmp-1029665,\"{'Sr': 6.0, 'B': 2.0, 'N': 6.0}\",\"('B', 'N', 'Sr')\",OTHERS,False\nmp-1188711,\"{'U': 4.0, 'V': 4.0, 'S': 12.0}\",\"('S', 'U', 'V')\",OTHERS,False\nmp-753374,\"{'Li': 4.0, 'V': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Li', 'O', 'Si', 'V')\",OTHERS,False\nmp-607450,\"{'In': 12.0, 'Ru': 4.0}\",\"('In', 'Ru')\",OTHERS,False\nmp-1199496,\"{'Cd': 48.0, 'As': 32.0}\",\"('As', 'Cd')\",OTHERS,False\nmp-1097684,\"{'Mn': 1.0, 'V': 2.0, 'Mo': 1.0}\",\"('Mn', 'Mo', 'V')\",OTHERS,False\nmp-864894,\"{'Be': 6.0, 'Rh': 2.0}\",\"('Be', 'Rh')\",OTHERS,False\nmp-1113012,\"{'Cs': 2.0, 'Li': 1.0, 'Mo': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Li', 'Mo')\",OTHERS,False\nmp-1246262,\"{'Zn': 4.0, 'Ir': 2.0, 'N': 6.0}\",\"('Ir', 'N', 'Zn')\",OTHERS,False\nmp-1226937,\"{'Ce': 3.0, 'Th': 3.0, 'Si': 4.0}\",\"('Ce', 'Si', 'Th')\",OTHERS,False\nmp-1220898,\"{'Pr': 32.0, 'In': 3.0, 'Rh': 19.0}\",\"('In', 'Pr', 'Rh')\",OTHERS,False\nmp-1185664,\"{'Mg': 16.0, 'Al': 12.0, 'Ga': 1.0}\",\"('Al', 'Ga', 'Mg')\",OTHERS,False\nmp-1187970,\"{'Yb': 3.0, 'Cr': 1.0}\",\"('Cr', 'Yb')\",OTHERS,False\nmp-23082,\"{'O': 12.0, 'Cl': 4.0, 'K': 4.0, 'Cr': 4.0}\",\"('Cl', 'Cr', 'K', 'O')\",OTHERS,False\nmp-759825,\"{'Bi': 4.0, 'O': 4.0, 'F': 4.0}\",\"('Bi', 'F', 'O')\",OTHERS,False\nmp-1185607,\"{'La': 1.0, 'Eu': 1.0, 'Hg': 2.0}\",\"('Eu', 'Hg', 'La')\",OTHERS,False\nmp-720868,\"{'Ca': 4.0, 'Cd': 2.0, 'H': 48.0, 'Cl': 12.0, 'O': 24.0}\",\"('Ca', 'Cd', 'Cl', 'H', 'O')\",OTHERS,False\nmp-1188308,\"{'Er': 10.0, 'Sb': 2.0, 'Au': 4.0}\",\"('Au', 'Er', 'Sb')\",OTHERS,False\nmp-1120802,\"{'Li': 12.0, 'Mn': 1.0, 'Co': 1.0, 'Ni': 10.0, 'O': 24.0}\",\"('Co', 'Li', 'Mn', 'Ni', 'O')\",OTHERS,False\nmp-1096508,\"{'K': 2.0, 'Hg': 1.0, 'Au': 1.0}\",\"('Au', 'Hg', 'K')\",OTHERS,False\nmp-675142,\"{'Yb': 12.0, 'Dy': 4.0, 'Sb': 12.0}\",\"('Dy', 'Sb', 'Yb')\",OTHERS,False\nmp-571189,\"{'Na': 2.0, 'Hf': 4.0, 'Cu': 2.0, 'Se': 10.0}\",\"('Cu', 'Hf', 'Na', 'Se')\",OTHERS,False\nmp-567352,\"{'Ga': 8.0, 'Sb': 32.0, 'Br': 32.0}\",\"('Br', 'Ga', 'Sb')\",OTHERS,False\nmp-754595,\"{'Li': 2.0, 'Ti': 3.0, 'Fe': 1.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-675535,\"{'La': 4.0, 'Sn': 2.0, 'Sb': 8.0}\",\"('La', 'Sb', 'Sn')\",OTHERS,False\nmp-1211930,\"{'K': 4.0, 'Ho': 4.0, 'S': 8.0, 'O': 40.0}\",\"('Ho', 'K', 'O', 'S')\",OTHERS,False\nmp-1226457,\"{'Cs': 16.0, 'Mn': 12.0, 'O': 24.0}\",\"('Cs', 'Mn', 'O')\",OTHERS,False\nmp-1179495,\"{'Si': 1.0, 'Hg': 2.0, 'O': 4.0, 'F': 6.0}\",\"('F', 'Hg', 'O', 'Si')\",OTHERS,False\nmp-605006,\"{'Li': 8.0, 'H': 64.0, 'C': 16.0, 'S': 16.0, 'N': 8.0, 'O': 40.0}\",\"('C', 'H', 'Li', 'N', 'O', 'S')\",OTHERS,False\nmp-1228565,\"{'Ba': 3.0, 'Sr': 3.0, 'Np': 2.0}\",\"('Ba', 'Np', 'Sr')\",OTHERS,False\nmp-31186,\"{'Al': 1.0, 'Fe': 2.0, 'Ni': 1.0}\",\"('Al', 'Fe', 'Ni')\",OTHERS,False\nmp-1202543,\"{'Na': 4.0, 'H': 48.0, 'Ru': 4.0, 'C': 16.0, 'S': 8.0, 'Cl': 16.0, 'O': 8.0}\",\"('C', 'Cl', 'H', 'Na', 'O', 'Ru', 'S')\",OTHERS,False\nmp-1222201,\"{'Mg': 6.0, 'Fe': 2.0, 'Si': 4.0, 'O': 16.0}\",\"('Fe', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1173915,\"{'Li': 4.0, 'Mn': 2.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1215285,\"{'Zr': 2.0, 'Cr': 2.0, 'Cu': 2.0, 'Se': 8.0}\",\"('Cr', 'Cu', 'Se', 'Zr')\",OTHERS,False\nmp-1100673,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-2921,\"{'O': 48.0, 'Ga': 20.0, 'Gd': 12.0}\",\"('Ga', 'Gd', 'O')\",OTHERS,False\nmvc-8002,\"{'Zn': 4.0, 'Co': 6.0, 'O': 16.0}\",\"('Co', 'O', 'Zn')\",OTHERS,False\nmp-1211408,\"{'Lu': 6.0, 'Al': 60.0, 'Re': 12.0}\",\"('Al', 'Lu', 'Re')\",OTHERS,False\nmp-1246181,\"{'Mn': 16.0, 'Si': 40.0, 'N': 64.0}\",\"('Mn', 'N', 'Si')\",OTHERS,False\nmp-11572,\"{'Tc': 1.0, 'Ta': 1.0}\",\"('Ta', 'Tc')\",OTHERS,False\nmp-761916,\"{'Na': 4.0, 'H': 16.0, 'Au': 4.0, 'Br': 16.0, 'O': 8.0}\",\"('Au', 'Br', 'H', 'Na', 'O')\",OTHERS,False\nmp-27842,\"{'Cr': 2.0, 'Br': 2.0, 'O': 2.0}\",\"('Br', 'Cr', 'O')\",OTHERS,False\nmp-1186466,\"{'Pr': 1.0, 'Nd': 1.0, 'Ir': 2.0}\",\"('Ir', 'Nd', 'Pr')\",OTHERS,False\nmp-1188989,\"{'Tb': 6.0, 'Co': 4.0, 'Ge': 6.0}\",\"('Co', 'Ge', 'Tb')\",OTHERS,False\nmp-449,\"{'Si': 6.0, 'Fe': 10.0}\",\"('Fe', 'Si')\",OTHERS,False\nmp-1095201,\"{'Zr': 2.0, 'Cu': 2.0, 'Ge': 4.0}\",\"('Cu', 'Ge', 'Zr')\",OTHERS,False\nmp-765566,\"{'Li': 3.0, 'Ag': 6.0, 'F': 18.0}\",\"('Ag', 'F', 'Li')\",OTHERS,False\nmp-1218787,\"{'Sr': 4.0, 'Ce': 1.0, 'Y': 3.0, 'Cu': 4.0, 'Ru': 2.0, 'O': 20.0}\",\"('Ce', 'Cu', 'O', 'Ru', 'Sr', 'Y')\",OTHERS,False\nmp-1244586,\"{'Zn': 4.0, 'Cr': 4.0, 'Bi': 4.0, 'O': 20.0}\",\"('Bi', 'Cr', 'O', 'Zn')\",OTHERS,False\nmp-22904,\"{'Cl': 4.0, 'Ca': 2.0}\",\"('Ca', 'Cl')\",OTHERS,False\nmp-1175376,\"{'Li': 9.0, 'Co': 7.0, 'O': 16.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1178362,\"{'Dy': 2.0, 'Cl': 2.0, 'O': 2.0}\",\"('Cl', 'Dy', 'O')\",OTHERS,False\nAu 62.3 Sn 23.1 Gd 14.6,\"{'Au': 62.3, 'Sn': 23.1, 'Gd': 14.6}\",\"('Au', 'Gd', 'Sn')\",AC,False\nmp-1184860,\"{'Ho': 2.0, 'Mg': 4.0}\",\"('Ho', 'Mg')\",OTHERS,False\nmp-1178916,\"{'V': 4.0, 'P': 4.0, 'H': 44.0, 'O': 36.0}\",\"('H', 'O', 'P', 'V')\",OTHERS,False\nmp-1227166,\"{'Ca': 2.0, 'Nd': 2.0, 'Mn': 4.0, 'O': 12.0}\",\"('Ca', 'Mn', 'Nd', 'O')\",OTHERS,False\nmp-971855,\"{'Tm': 4.0, 'Co': 6.0, 'Si': 10.0}\",\"('Co', 'Si', 'Tm')\",OTHERS,False\nmp-780133,\"{'Mn': 12.0, 'O': 14.0, 'F': 10.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-654,\"{'Fe': 17.0, 'Ce': 2.0}\",\"('Ce', 'Fe')\",OTHERS,False\nmp-755514,\"{'Li': 5.0, 'Mn': 2.0, 'Fe': 3.0, 'O': 10.0}\",\"('Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1013531,\"{'Sr': 3.0, 'Bi': 1.0, 'N': 1.0}\",\"('Bi', 'N', 'Sr')\",OTHERS,False\nmvc-4609,\"{'Mg': 2.0, 'Cu': 4.0, 'O': 8.0}\",\"('Cu', 'Mg', 'O')\",OTHERS,False\nmp-1185395,\"{'Li': 1.0, 'Pm': 3.0}\",\"('Li', 'Pm')\",OTHERS,False\nmvc-4854,\"{'Mg': 4.0, 'Cr': 4.0, 'O': 8.0}\",\"('Cr', 'Mg', 'O')\",OTHERS,False\nmp-27907,\"{'S': 26.0, 'Sb': 12.0, 'Pb': 8.0}\",\"('Pb', 'S', 'Sb')\",OTHERS,False\nmp-1185168,\"{'K': 2.0, 'Rb': 6.0}\",\"('K', 'Rb')\",OTHERS,False\nmp-780535,\"{'Ba': 2.0, 'Lu': 4.0, 'O': 8.0}\",\"('Ba', 'Lu', 'O')\",OTHERS,False\nmp-1224792,\"{'Ga': 1.0, 'Ag': 1.0, 'Se': 2.0}\",\"('Ag', 'Ga', 'Se')\",OTHERS,False\nmp-1093681,\"{'Ca': 1.0, 'In': 1.0, 'Ag': 2.0}\",\"('Ag', 'Ca', 'In')\",OTHERS,False\nmp-555785,\"{'Nd': 4.0, 'Ti': 4.0, 'O': 14.0}\",\"('Nd', 'O', 'Ti')\",OTHERS,False\nmp-2136,\"{'O': 12.0, 'Sb': 8.0}\",\"('O', 'Sb')\",OTHERS,False\nmp-568348,{'P': 84.0},\"('P',)\",OTHERS,False\nmp-555941,\"{'Al': 6.0, 'P': 6.0, 'O': 24.0}\",\"('Al', 'O', 'P')\",OTHERS,False\nmp-1184424,\"{'Dy': 1.0, 'Y': 1.0, 'In': 2.0}\",\"('Dy', 'In', 'Y')\",OTHERS,False\nmp-1208770,\"{'Sr': 6.0, 'Li': 12.0, 'Nb': 4.0, 'O': 22.0}\",\"('Li', 'Nb', 'O', 'Sr')\",OTHERS,False\nmp-764402,\"{'Mn': 2.0, 'Fe': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Fe', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1199399,\"{'Ti': 2.0, 'Si': 14.0, 'H': 96.0, 'C': 32.0, 'O': 4.0}\",\"('C', 'H', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-755678,\"{'Ca': 2.0, 'La': 4.0, 'I': 16.0}\",\"('Ca', 'I', 'La')\",OTHERS,False\nmp-5915,\"{'N': 8.0, 'O': 24.0, 'Tl': 8.0}\",\"('N', 'O', 'Tl')\",OTHERS,False\nmp-1184636,\"{'Hf': 1.0, 'Th': 1.0, 'Tc': 2.0}\",\"('Hf', 'Tc', 'Th')\",OTHERS,False\nmp-1112957,\"{'Cs': 2.0, 'Hg': 1.0, 'Sb': 1.0, 'F': 6.0}\",\"('Cs', 'F', 'Hg', 'Sb')\",OTHERS,False\nmp-1190722,\"{'Mg': 1.0, 'U': 2.0, 'Si': 2.0, 'O': 16.0}\",\"('Mg', 'O', 'Si', 'U')\",OTHERS,False\nmp-561093,\"{'Rb': 8.0, 'Cr': 8.0, 'O': 28.0}\",\"('Cr', 'O', 'Rb')\",OTHERS,False\nmp-867167,\"{'Li': 1.0, 'Ca': 2.0, 'Tl': 1.0}\",\"('Ca', 'Li', 'Tl')\",OTHERS,False\nmp-1194999,\"{'Na': 2.0, 'Co': 4.0, 'As': 6.0, 'O': 20.0}\",\"('As', 'Co', 'Na', 'O')\",OTHERS,False\nmp-1013719,\"{'Ba': 3.0, 'Bi': 1.0, 'Sb': 1.0}\",\"('Ba', 'Bi', 'Sb')\",OTHERS,False\nmp-1184539,\"{'Eu': 2.0, 'Th': 6.0}\",\"('Eu', 'Th')\",OTHERS,False\nmp-18787,\"{'O': 2.0, 'Mn': 3.0, 'Sb': 2.0, 'Ba': 2.0}\",\"('Ba', 'Mn', 'O', 'Sb')\",OTHERS,False\nmp-764587,\"{'Li': 4.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-755126,\"{'Mn': 6.0, 'O': 11.0, 'F': 1.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-973066,\"{'Sc': 1.0, 'Ge': 1.0, 'Rh': 2.0}\",\"('Ge', 'Rh', 'Sc')\",OTHERS,False\nmp-550566,\"{'O': 4.0, 'Bi': 2.0, 'Eu': 1.0, 'Cl': 1.0}\",\"('Bi', 'Cl', 'Eu', 'O')\",OTHERS,False\nmp-755519,\"{'Li': 3.0, 'Mn': 1.0, 'Cr': 3.0, 'O': 8.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-607479,\"{'Eu': 4.0, 'Rb': 4.0, 'Si': 4.0, 'S': 16.0}\",\"('Eu', 'Rb', 'S', 'Si')\",OTHERS,False\nmp-1224835,\"{'Fe': 2.0, 'Pb': 3.0, 'W': 1.0, 'O': 9.0}\",\"('Fe', 'O', 'Pb', 'W')\",OTHERS,False\nmp-17642,\"{'O': 24.0, 'Cr': 4.0, 'Rb': 4.0, 'U': 4.0}\",\"('Cr', 'O', 'Rb', 'U')\",OTHERS,False\nmvc-11925,\"{'Mg': 2.0, 'Bi': 2.0, 'P': 2.0, 'O': 12.0}\",\"('Bi', 'Mg', 'O', 'P')\",OTHERS,False\nmp-780570,\"{'Ti': 8.0, 'S': 16.0, 'O': 64.0}\",\"('O', 'S', 'Ti')\",OTHERS,False\nmp-1094067,\"{'Sc': 4.0, 'F': 12.0}\",\"('F', 'Sc')\",OTHERS,False\nmp-18444,\"{'O': 12.0, 'Cu': 2.0, 'Sr': 6.0, 'Rh': 2.0}\",\"('Cu', 'O', 'Rh', 'Sr')\",OTHERS,False\nmp-849415,\"{'Li': 8.0, 'Fe': 8.0, 'P': 16.0, 'O': 56.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-4840,\"{'Cu': 2.0, 'Ga': 2.0, 'Se': 4.0}\",\"('Cu', 'Ga', 'Se')\",OTHERS,False\nmp-1220322,\"{'Nb': 1.0, 'Re': 1.0}\",\"('Nb', 'Re')\",OTHERS,False\nmvc-15235,\"{'Y': 4.0, 'Cr': 12.0, 'O': 36.0}\",\"('Cr', 'O', 'Y')\",OTHERS,False\nmp-26453,\"{'Li': 6.0, 'Mn': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-9848,\"{'P': 10.0, 'Pr': 2.0}\",\"('P', 'Pr')\",OTHERS,False\nmp-1197740,\"{'Ce': 8.0, 'Si': 4.0, 'S': 20.0}\",\"('Ce', 'S', 'Si')\",OTHERS,False\nCd 65 Mg 20 Ca 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Ca': 15.0}\",\"('Ca', 'Cd', 'Mg')\",QC,False\nmp-1075184,\"{'Mg': 6.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1214076,\"{'Ca': 2.0, 'Al': 4.0, 'Si': 8.0, 'H': 4.0, 'O': 24.0}\",\"('Al', 'Ca', 'H', 'O', 'Si')\",OTHERS,False\nmp-1036621,\"{'Y': 1.0, 'Mg': 14.0, 'Al': 1.0, 'O': 16.0}\",\"('Al', 'Mg', 'O', 'Y')\",OTHERS,False\nmp-1223672,\"{'K': 2.0, 'Ba': 1.0, 'Bi': 3.0, 'O': 9.0}\",\"('Ba', 'Bi', 'K', 'O')\",OTHERS,False\nmp-2633,\"{'O': 8.0, 'Ge': 4.0}\",\"('Ge', 'O')\",OTHERS,False\nmvc-5236,\"{'Sn': 12.0, 'O': 24.0}\",\"('O', 'Sn')\",OTHERS,False\nmp-1216036,\"{'Zn': 6.0, 'Co': 8.0, 'Sb': 4.0, 'O': 24.0}\",\"('Co', 'O', 'Sb', 'Zn')\",OTHERS,False\nmp-569341,\"{'Nd': 3.0, 'B': 3.0, 'Pt': 6.0}\",\"('B', 'Nd', 'Pt')\",OTHERS,False\nmp-1194728,\"{'Ba': 6.0, 'Na': 2.0, 'Gd': 6.0, 'Si': 12.0, 'O': 40.0}\",\"('Ba', 'Gd', 'Na', 'O', 'Si')\",OTHERS,False\nmp-558498,\"{'Zn': 8.0, 'Ga': 8.0, 'N': 8.0, 'O': 8.0}\",\"('Ga', 'N', 'O', 'Zn')\",OTHERS,False\nmp-18737,\"{'Nd': 4.0, 'Ni': 2.0, 'O': 8.0}\",\"('Nd', 'Ni', 'O')\",OTHERS,False\nmp-17167,\"{'Be': 6.0, 'O': 24.0, 'Si': 6.0, 'Cd': 8.0, 'Te': 2.0}\",\"('Be', 'Cd', 'O', 'Si', 'Te')\",OTHERS,False\nmp-530524,\"{'F': 60.0, 'Tl': 4.0, 'Zr': 12.0}\",\"('F', 'Tl', 'Zr')\",OTHERS,False\nmp-1196849,\"{'Fe': 6.0, 'W': 20.0, 'C': 6.0}\",\"('C', 'Fe', 'W')\",OTHERS,False\nmp-17540,\"{'O': 18.0, 'Co': 2.0, 'Se': 6.0, 'Sr': 4.0}\",\"('Co', 'O', 'Se', 'Sr')\",OTHERS,False\nmp-541929,\"{'Fe': 4.0, 'P': 12.0, 'Si': 4.0, 'O': 44.0}\",\"('Fe', 'O', 'P', 'Si')\",OTHERS,False\nmp-600006,\"{'Si': 20.0, 'O': 40.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1222757,\"{'Li': 2.0, 'Mg': 1.0, 'Ti': 9.0, 'O': 20.0}\",\"('Li', 'Mg', 'O', 'Ti')\",OTHERS,False\nmp-1189806,\"{'Yb': 4.0, 'Cu': 2.0, 'Ge': 12.0}\",\"('Cu', 'Ge', 'Yb')\",OTHERS,False\nAg 41 In 44 Yb 15,\"{'Ag': 41.0, 'In': 44.0, 'Yb': 15.0}\",\"('Ag', 'In', 'Yb')\",AC,False\nmp-768139,\"{'Li': 16.0, 'Sb': 4.0, 'S': 2.0}\",\"('Li', 'S', 'Sb')\",OTHERS,False\nmp-772646,\"{'Li': 12.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-15753,\"{'Li': 4.0, 'As': 4.0, 'Ba': 3.0}\",\"('As', 'Ba', 'Li')\",OTHERS,False\nmp-755859,\"{'Li': 4.0, 'Mn': 1.0, 'Fe': 3.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1180419,\"{'Na': 8.0, 'Ag': 8.0, 'I': 16.0, 'O': 24.0}\",\"('Ag', 'I', 'Na', 'O')\",OTHERS,False\nmp-867913,\"{'Li': 1.0, 'Ho': 2.0, 'Ir': 1.0}\",\"('Ho', 'Ir', 'Li')\",OTHERS,False\nmp-26552,\"{'O': 44.0, 'P': 12.0, 'Co': 10.0}\",\"('Co', 'O', 'P')\",OTHERS,False\nmp-998762,\"{'Mn': 1.0, 'Tl': 1.0, 'F': 3.0}\",\"('F', 'Mn', 'Tl')\",OTHERS,False\nmp-863389,\"{'Nb': 16.0, 'Tl': 16.0, 'O': 53.0}\",\"('Nb', 'O', 'Tl')\",OTHERS,False\nmp-772663,\"{'Mn': 2.0, 'H': 8.0, 'S': 4.0, 'O': 20.0}\",\"('H', 'Mn', 'O', 'S')\",OTHERS,False\nmvc-8085,\"{'Zn': 2.0, 'Cu': 2.0, 'Ge': 4.0, 'O': 12.0}\",\"('Cu', 'Ge', 'O', 'Zn')\",OTHERS,False\nmp-1080559,\"{'In': 2.0, 'Ga': 4.0, 'Au': 4.0}\",\"('Au', 'Ga', 'In')\",OTHERS,False\nmp-1246818,\"{'Sr': 40.0, 'Cd': 8.0, 'N': 32.0}\",\"('Cd', 'N', 'Sr')\",OTHERS,False\nmp-6872,\"{'N': 2.0, 'O': 6.0, 'F': 12.0, 'Si': 2.0, 'K': 6.0}\",\"('F', 'K', 'N', 'O', 'Si')\",OTHERS,False\nmp-774354,\"{'Li': 4.0, 'Mn': 8.0, 'F': 20.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-1226833,\"{'Ce': 2.0, 'Zn': 3.0, 'Cu': 7.0}\",\"('Ce', 'Cu', 'Zn')\",OTHERS,False\nmp-1203228,\"{'La': 6.0, 'Rh': 8.0, 'Pb': 26.0}\",\"('La', 'Pb', 'Rh')\",OTHERS,False\nmp-1038195,\"{'Mg': 30.0, 'Al': 1.0, 'C': 1.0, 'O': 32.0}\",\"('Al', 'C', 'Mg', 'O')\",OTHERS,False\nmp-778583,\"{'Li': 3.0, 'Mn': 2.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-667447,\"{'Te': 8.0, 'As': 8.0, 'Se': 16.0, 'F': 48.0}\",\"('As', 'F', 'Se', 'Te')\",OTHERS,False\nmp-1189078,\"{'Na': 2.0, 'Al': 2.0, 'C': 2.0, 'O': 10.0}\",\"('Al', 'C', 'Na', 'O')\",OTHERS,False\nmp-1181438,\"{'Er': 10.0, 'Bi': 2.0, 'Au': 4.0}\",\"('Au', 'Bi', 'Er')\",OTHERS,False\nmp-22253,\"{'S': 4.0, 'Zn': 1.0, 'In': 2.0}\",\"('In', 'S', 'Zn')\",OTHERS,False\nmp-758848,\"{'Ti': 5.0, 'Nb': 1.0, 'O': 12.0}\",\"('Nb', 'O', 'Ti')\",OTHERS,False\nmp-25466,\"{'Li': 2.0, 'C': 2.0, 'O': 14.0, 'P': 2.0, 'Cu': 2.0}\",\"('C', 'Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-1096900,\"{'Cr': 4.0, 'N': 8.0}\",\"('Cr', 'N')\",OTHERS,False\nmp-865409,\"{'U': 1.0, 'Tc': 2.0, 'Sn': 1.0}\",\"('Sn', 'Tc', 'U')\",OTHERS,False\nmp-11243,\"{'Er': 2.0, 'Au': 2.0}\",\"('Au', 'Er')\",OTHERS,False\nmp-864637,\"{'Nd': 8.0, 'Al': 8.0}\",\"('Al', 'Nd')\",OTHERS,False\nmp-1080454,\"{'Dy': 3.0, 'Pd': 3.0, 'Pb': 3.0}\",\"('Dy', 'Pb', 'Pd')\",OTHERS,False\nmvc-9392,\"{'Pr': 2.0, 'Mg': 2.0, 'Mo': 4.0, 'O': 12.0}\",\"('Mg', 'Mo', 'O', 'Pr')\",OTHERS,False\nmp-1203188,\"{'Ca': 8.0, 'As': 4.0, 'H': 16.0, 'F': 52.0}\",\"('As', 'Ca', 'F', 'H')\",OTHERS,False\nmp-1246325,\"{'Ta': 2.0, 'Mn': 4.0, 'N': 6.0}\",\"('Mn', 'N', 'Ta')\",OTHERS,False\nmp-754598,\"{'Hg': 9.0, 'Se': 3.0, 'O': 18.0}\",\"('Hg', 'O', 'Se')\",OTHERS,False\nmp-1210098,\"{'Rb': 8.0, 'Ce': 4.0, 'Cl': 20.0}\",\"('Ce', 'Cl', 'Rb')\",OTHERS,False\nmp-865876,\"{'Ti': 2.0, 'Tc': 1.0, 'Os': 1.0}\",\"('Os', 'Tc', 'Ti')\",OTHERS,False\nmp-505765,\"{'Ba': 20.0, 'Co': 20.0, 'N': 20.0}\",\"('Ba', 'Co', 'N')\",OTHERS,False\nmp-697563,\"{'Ca': 4.0, 'Mg': 1.0, 'B': 4.0, 'H': 6.0, 'C': 2.0, 'O': 18.0}\",\"('B', 'C', 'Ca', 'H', 'Mg', 'O')\",OTHERS,False\nmp-756308,\"{'Li': 4.0, 'Ti': 3.0, 'Fe': 3.0, 'Sn': 2.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Sn', 'Ti')\",OTHERS,False\nmp-1173971,\"{'Li': 6.0, 'Mn': 2.0, 'Co': 2.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1105758,\"{'Al': 2.0, 'Tl': 4.0, 'O': 2.0, 'F': 10.0}\",\"('Al', 'F', 'O', 'Tl')\",OTHERS,False\nmp-28538,\"{'H': 12.0, 'Si': 4.0, 'I': 4.0}\",\"('H', 'I', 'Si')\",OTHERS,False\nmp-569557,\"{'Dy': 6.0, 'Si': 2.0, 'Cu': 2.0, 'Se': 14.0}\",\"('Cu', 'Dy', 'Se', 'Si')\",OTHERS,False\nmp-3255,\"{'O': 6.0, 'Cu': 4.0, 'Sr': 2.0}\",\"('Cu', 'O', 'Sr')\",OTHERS,False\nmp-17620,\"{'B': 6.0, 'O': 18.0, 'Tm': 6.0}\",\"('B', 'O', 'Tm')\",OTHERS,False\nmp-1185759,\"{'Mg': 17.0, 'Al': 11.0, 'Tl': 1.0}\",\"('Al', 'Mg', 'Tl')\",OTHERS,False\nmp-735563,\"{'Cs': 1.0, 'Co': 1.0, 'H': 18.0, 'N': 6.0, 'Cl': 4.0, 'O': 8.0}\",\"('Cl', 'Co', 'Cs', 'H', 'N', 'O')\",OTHERS,False\nmp-8371,\"{'C': 2.0, 'Lu': 1.0}\",\"('C', 'Lu')\",OTHERS,False\nmp-1205435,\"{'K': 8.0, 'Fe': 8.0, 'P': 8.0, 'O': 28.0, 'F': 8.0}\",\"('F', 'Fe', 'K', 'O', 'P')\",OTHERS,False\nmp-504722,\"{'Ni': 4.0, 'N': 8.0, 'O': 24.0}\",\"('N', 'Ni', 'O')\",OTHERS,False\nmp-7237,\"{'O': 4.0, 'Cu': 2.0, 'Ag': 2.0}\",\"('Ag', 'Cu', 'O')\",OTHERS,False\nmp-1078200,\"{'V': 2.0, 'Co': 1.0, 'Se': 4.0}\",\"('Co', 'Se', 'V')\",OTHERS,False\nmp-1177476,\"{'Li': 3.0, 'V': 5.0, 'O': 12.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1187133,\"{'Sr': 6.0, 'Fe': 2.0}\",\"('Fe', 'Sr')\",OTHERS,False\nmp-720332,\"{'Na': 5.0, 'Ca': 1.0, 'Al': 5.0, 'Fe': 1.0, 'Si': 12.0, 'O': 36.0}\",\"('Al', 'Ca', 'Fe', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1219396,\"{'Sc': 2.0, 'Te': 3.0}\",\"('Sc', 'Te')\",OTHERS,False\nmvc-1364,\"{'Ba': 2.0, 'V': 3.0, 'O': 7.0}\",\"('Ba', 'O', 'V')\",OTHERS,False\nmp-760095,\"{'Li': 6.0, 'Mn': 6.0, 'F': 18.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-761214,\"{'Li': 3.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1024991,\"{'Er': 2.0, 'Cu': 4.0}\",\"('Cu', 'Er')\",OTHERS,False\nmp-1175447,\"{'Li': 9.0, 'Co': 7.0, 'O': 16.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1225379,\"{'Fe': 30.0, 'Si': 6.0, 'P': 6.0}\",\"('Fe', 'P', 'Si')\",OTHERS,False\nmp-20294,\"{'Rh': 1.0, 'In': 5.0, 'Ce': 1.0}\",\"('Ce', 'In', 'Rh')\",OTHERS,False\nmp-977207,\"{'Li': 4.0, 'Mg': 2.0}\",\"('Li', 'Mg')\",OTHERS,False\nmp-1199265,\"{'Nb': 4.0, 'Pb': 4.0, 'Se': 8.0, 'O': 30.0}\",\"('Nb', 'O', 'Pb', 'Se')\",OTHERS,False\nmp-1181157,\"{'K': 2.0, 'La': 2.0, 'C': 8.0, 'O': 22.0}\",\"('C', 'K', 'La', 'O')\",OTHERS,False\nmp-774219,\"{'Li': 3.0, 'Mn': 1.0, 'Co': 3.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-17217,\"{'Ge': 4.0, 'Te': 12.0, 'Tl': 12.0}\",\"('Ge', 'Te', 'Tl')\",OTHERS,False\nmp-1096250,\"{'Ti': 1.0, 'V': 1.0, 'Mo': 2.0}\",\"('Mo', 'Ti', 'V')\",OTHERS,False\nmp-1222270,\"{'Li': 1.0, 'Mg': 1.0}\",\"('Li', 'Mg')\",OTHERS,False\nmp-1221952,\"{'Mg': 1.0, 'Ti': 2.0, 'Ni': 1.0, 'O': 6.0}\",\"('Mg', 'Ni', 'O', 'Ti')\",OTHERS,False\nmp-1215969,\"{'Yb': 20.0, 'Cd': 3.0, 'Au': 9.0}\",\"('Au', 'Cd', 'Yb')\",OTHERS,False\nmp-1174093,\"{'Li': 4.0, 'Mn': 1.0, 'Co': 3.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-672653,\"{'Nb': 6.0, 'Ni': 16.0, 'Ge': 7.0}\",\"('Ge', 'Nb', 'Ni')\",OTHERS,False\nmp-1215993,\"{'Y': 1.0, 'Bi': 3.0, 'Ru': 4.0, 'O': 14.0}\",\"('Bi', 'O', 'Ru', 'Y')\",OTHERS,False\nmp-26716,\"{'O': 28.0, 'P': 8.0, 'Co': 4.0}\",\"('Co', 'O', 'P')\",OTHERS,False\nmp-15317,\"{'F': 6.0, 'Na': 1.0, 'Rb': 2.0, 'Ho': 1.0}\",\"('F', 'Ho', 'Na', 'Rb')\",OTHERS,False\nmp-862287,\"{'Be': 1.0, 'Al': 1.0, 'Rh': 2.0}\",\"('Al', 'Be', 'Rh')\",OTHERS,False\nmp-30187,\"{'O': 11.0, 'Ga': 2.0, 'Te': 4.0}\",\"('Ga', 'O', 'Te')\",OTHERS,False\nmp-560092,\"{'Rb': 2.0, 'Na': 10.0, 'Be': 16.0, 'O': 22.0}\",\"('Be', 'Na', 'O', 'Rb')\",OTHERS,False\nmp-1097242,\"{'Y': 1.0, 'Sc': 1.0, 'Au': 2.0}\",\"('Au', 'Sc', 'Y')\",OTHERS,False\nmp-698218,\"{'La': 2.0, 'H': 26.0, 'C': 6.0, 'S': 6.0, 'O': 22.0}\",\"('C', 'H', 'La', 'O', 'S')\",OTHERS,False\nmp-1080742,\"{'Sr': 2.0, 'Zr': 1.0, 'Cr': 1.0, 'O': 6.0}\",\"('Cr', 'O', 'Sr', 'Zr')\",OTHERS,False\nmp-560791,\"{'Cs': 2.0, 'Na': 2.0, 'Ti': 2.0, 'O': 6.0}\",\"('Cs', 'Na', 'O', 'Ti')\",OTHERS,False\nmp-698183,\"{'Mg': 3.0, 'P': 2.0, 'H': 44.0, 'O': 30.0}\",\"('H', 'Mg', 'O', 'P')\",OTHERS,False\nmp-11765,\"{'Ti': 5.0, 'Se': 4.0}\",\"('Se', 'Ti')\",OTHERS,False\nmp-29062,\"{'F': 24.0, 'Zr': 4.0, 'Th': 2.0}\",\"('F', 'Th', 'Zr')\",OTHERS,False\nmp-554144,\"{'F': 7.0, 'K': 3.0, 'Mn': 2.0}\",\"('F', 'K', 'Mn')\",OTHERS,False\nmp-1111199,\"{'K': 2.0, 'Al': 1.0, 'Tl': 1.0, 'I': 6.0}\",\"('Al', 'I', 'K', 'Tl')\",OTHERS,False\nmp-733610,\"{'H': 14.0, 'C': 6.0, 'N': 6.0, 'O': 10.0}\",\"('C', 'H', 'N', 'O')\",OTHERS,False\nmp-19241,\"{'O': 6.0, 'Ni': 2.0, 'Ba': 2.0}\",\"('Ba', 'Ni', 'O')\",OTHERS,False\nmp-1207591,\"{'Yb': 2.0, 'Eu': 2.0, 'Cu': 2.0, 'S': 6.0}\",\"('Cu', 'Eu', 'S', 'Yb')\",OTHERS,False\nmp-757117,\"{'Li': 4.0, 'Fe': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1246919,\"{'Mn': 10.0, 'Ge': 4.0, 'N': 12.0}\",\"('Ge', 'Mn', 'N')\",OTHERS,False\nmp-768303,\"{'Dy': 2.0, 'Nb': 2.0, 'O': 8.0}\",\"('Dy', 'Nb', 'O')\",OTHERS,False\nmp-1080375,\"{'Ce': 24.0, 'Se': 48.0}\",\"('Ce', 'Se')\",OTHERS,False\nmvc-2270,\"{'Ca': 2.0, 'Mn': 9.0, 'O': 13.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,False\nmp-1080314,\"{'Ce': 6.0, 'Se': 12.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-979963,\"{'Yb': 3.0, 'Ti': 1.0}\",\"('Ti', 'Yb')\",OTHERS,False\nmp-21172,\"{'Pb': 3.0, 'Pu': 1.0}\",\"('Pb', 'Pu')\",OTHERS,False\nmp-1185438,\"{'Lu': 3.0, 'Hg': 1.0}\",\"('Hg', 'Lu')\",OTHERS,False\nmvc-16196,\"{'Zn': 4.0, 'Bi': 4.0, 'O': 10.0}\",\"('Bi', 'O', 'Zn')\",OTHERS,False\nmp-1229223,\"{'As': 14.0, 'H': 6.0, 'O': 31.0}\",\"('As', 'H', 'O')\",OTHERS,False\nmp-12716,\"{'Li': 1.0, 'Pd': 2.0, 'Tl': 1.0}\",\"('Li', 'Pd', 'Tl')\",OTHERS,False\nmp-1095753,\"{'La': 2.0, 'Tl': 1.0, 'Ag': 1.0}\",\"('Ag', 'La', 'Tl')\",OTHERS,False\nmp-849302,\"{'Li': 6.0, 'Fe': 8.0, 'F': 38.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-1192181,\"{'Au': 2.0, 'C': 8.0, 'N': 8.0, 'O': 4.0}\",\"('Au', 'C', 'N', 'O')\",OTHERS,False\nmp-567601,\"{'Sr': 16.0, 'C': 4.0, 'N': 16.0}\",\"('C', 'N', 'Sr')\",OTHERS,False\nmp-1220026,\"{'Pr': 1.0, 'Er': 1.0, 'Co': 17.0}\",\"('Co', 'Er', 'Pr')\",OTHERS,False\nmp-8351,\"{'O': 16.0, 'Na': 4.0, 'Al': 4.0, 'Si': 4.0}\",\"('Al', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1079201,\"{'B': 2.0, 'C': 4.0, 'N': 2.0}\",\"('B', 'C', 'N')\",OTHERS,False\nmp-641661,\"{'Xe': 16.0, 'F': 96.0}\",\"('F', 'Xe')\",OTHERS,False\nmp-1222046,\"{'Mg': 1.0, 'Fe': 4.0, 'Cu': 1.0, 'O': 8.0}\",\"('Cu', 'Fe', 'Mg', 'O')\",OTHERS,False\nmp-761163,\"{'Na': 2.0, 'Ni': 7.0, 'O': 14.0}\",\"('Na', 'Ni', 'O')\",OTHERS,False\nmp-755855,\"{'Li': 2.0, 'Fe': 3.0, 'Bi': 1.0, 'O': 8.0}\",\"('Bi', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1193346,\"{'Zr': 16.0, 'Co': 8.0, 'N': 4.0}\",\"('Co', 'N', 'Zr')\",OTHERS,False\nmp-9069,\"{'Na': 2.0, 'Al': 2.0, 'K': 4.0, 'As': 4.0}\",\"('Al', 'As', 'K', 'Na')\",OTHERS,False\nmp-1176348,\"{'Na': 10.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Na', 'O', 'P')\",OTHERS,False\nmp-1226096,\"{'Co': 7.0, 'Ge': 4.0}\",\"('Co', 'Ge')\",OTHERS,False\nmp-1246494,\"{'Sr': 12.0, 'Rh': 8.0, 'N': 16.0}\",\"('N', 'Rh', 'Sr')\",OTHERS,False\nmp-1204289,\"{'Cs': 32.0, 'Bi': 8.0, 'As': 24.0, 'Se': 56.0}\",\"('As', 'Bi', 'Cs', 'Se')\",OTHERS,False\nmp-685863,\"{'Li': 24.0, 'Si': 6.0, 'O': 24.0}\",\"('Li', 'O', 'Si')\",OTHERS,False\nmp-743584,\"{'H': 12.0, 'W': 1.0, 'N': 3.0, 'O': 3.0, 'F': 3.0}\",\"('F', 'H', 'N', 'O', 'W')\",OTHERS,False\nmp-20318,\"{'B': 2.0, 'Mn': 4.0}\",\"('B', 'Mn')\",OTHERS,False\nmvc-10529,\"{'P': 8.0, 'W': 8.0, 'O': 32.0}\",\"('O', 'P', 'W')\",OTHERS,False\nmp-756442,\"{'Mg': 2.0, 'Co': 4.0, 'O': 8.0}\",\"('Co', 'Mg', 'O')\",OTHERS,False\nmp-753010,\"{'Li': 8.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1221833,\"{'Mn': 2.0, 'Ni': 1.0, 'Sb': 2.0, 'Pt': 1.0}\",\"('Mn', 'Ni', 'Pt', 'Sb')\",OTHERS,False\nmp-23870,\"{'H': 1.0, 'Na': 1.0}\",\"('H', 'Na')\",OTHERS,False\nmp-1182867,\"{'Al': 2.0, 'W': 2.0, 'O': 8.0}\",\"('Al', 'O', 'W')\",OTHERS,False\nmp-1218922,\"{'Sn': 1.0, 'Te': 1.0, 'Pb': 4.0, 'S': 4.0}\",\"('Pb', 'S', 'Sn', 'Te')\",OTHERS,False\nmp-777761,\"{'Li': 6.0, 'Mn': 1.0, 'V': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1208574,\"{'Ta': 16.0, 'Se': 32.0, 'S': 4.0, 'I': 32.0}\",\"('I', 'S', 'Se', 'Ta')\",OTHERS,False\nmp-1071985,\"{'Ce': 2.0, 'Sn': 2.0, 'Au': 2.0}\",\"('Au', 'Ce', 'Sn')\",OTHERS,False\nmp-1185215,\"{'Li': 6.0, 'Fe': 2.0}\",\"('Fe', 'Li')\",OTHERS,False\nmp-1080356,\"{'Ce': 18.0, 'Se': 36.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-1112935,\"{'Cs': 2.0, 'Ta': 1.0, 'Ag': 1.0, 'I': 6.0}\",\"('Ag', 'Cs', 'I', 'Ta')\",OTHERS,False\nmp-22291,\"{'Se': 6.0, 'Cs': 2.0, 'Gd': 2.0, 'Hg': 2.0}\",\"('Cs', 'Gd', 'Hg', 'Se')\",OTHERS,False\nAl 74.8 Co 17.0 Ni 8.2,\"{'Al': 74.8, 'Co': 17.0, 'Ni': 8.2}\",\"('Al', 'Co', 'Ni')\",AC,False\nmp-505089,\"{'Li': 16.0, 'Tb': 4.0, 'F': 32.0}\",\"('F', 'Li', 'Tb')\",OTHERS,False\nmp-1237354,\"{'H': 14.0, 'C': 4.0, 'N': 14.0, 'O': 12.0}\",\"('C', 'H', 'N', 'O')\",OTHERS,False\nmp-1185407,\"{'Li': 1.0, 'Pr': 1.0, 'Au': 2.0}\",\"('Au', 'Li', 'Pr')\",OTHERS,False\nmp-28204,\"{'H': 28.0, 'O': 16.0, 'Cs': 4.0}\",\"('Cs', 'H', 'O')\",OTHERS,False\nmp-1245424,\"{'Ge': 4.0, 'Pb': 28.0, 'N': 24.0}\",\"('Ge', 'N', 'Pb')\",OTHERS,False\nmp-1212627,\"{'Mn': 2.0, 'C': 12.0, 'O': 12.0}\",\"('C', 'Mn', 'O')\",OTHERS,False\nmp-510564,\"{'Nd': 1.0, 'Rh': 1.0, 'In': 5.0}\",\"('In', 'Nd', 'Rh')\",OTHERS,False\nmvc-9167,\"{'Mg': 4.0, 'Co': 12.0, 'O': 28.0}\",\"('Co', 'Mg', 'O')\",OTHERS,False\nmp-1210992,\"{'Li': 2.0, 'Sm': 2.0, 'S': 4.0, 'O': 16.0}\",\"('Li', 'O', 'S', 'Sm')\",OTHERS,False\nmp-891,\"{'Ni': 6.0, 'Ta': 2.0}\",\"('Ni', 'Ta')\",OTHERS,False\nmp-1216097,\"{'Y': 3.0, 'Bi': 1.0, 'Ru': 4.0, 'O': 14.0}\",\"('Bi', 'O', 'Ru', 'Y')\",OTHERS,False\nmp-1104382,\"{'Cr': 4.0, 'Ga': 2.0, 'S': 8.0}\",\"('Cr', 'Ga', 'S')\",OTHERS,False\nmp-1224071,\"{'K': 10.0, 'Cu': 2.0, 'C': 2.0, 'O': 10.0}\",\"('C', 'Cu', 'K', 'O')\",OTHERS,False\nmp-1196392,\"{'Li': 8.0, 'B': 8.0, 'H': 40.0, 'N': 8.0}\",\"('B', 'H', 'Li', 'N')\",OTHERS,False\nmp-1076766,\"{'La': 20.0, 'Sm': 12.0, 'V': 4.0, 'Cr': 28.0, 'O': 80.0}\",\"('Cr', 'La', 'O', 'Sm', 'V')\",OTHERS,False\nmp-779989,\"{'Gd': 8.0, 'P': 16.0, 'O': 52.0}\",\"('Gd', 'O', 'P')\",OTHERS,False\nmp-1184280,\"{'Fe': 6.0, 'W': 2.0}\",\"('Fe', 'W')\",OTHERS,False\nmp-1246053,\"{'Ba': 6.0, 'Nb': 4.0, 'N': 8.0}\",\"('Ba', 'N', 'Nb')\",OTHERS,False\nmp-1193310,\"{'Cr': 22.0, 'W': 1.0, 'C': 6.0}\",\"('C', 'Cr', 'W')\",OTHERS,False\nmp-772781,\"{'Lu': 4.0, 'B': 8.0, 'O': 18.0}\",\"('B', 'Lu', 'O')\",OTHERS,False\nmp-17639,\"{'Zn': 17.0, 'Y': 2.0}\",\"('Y', 'Zn')\",OTHERS,False\nmp-1025934,\"{'Mo': 2.0, 'W': 1.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-776574,\"{'V': 6.0, 'O': 9.0, 'F': 9.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-17712,\"{'O': 22.0, 'Si': 4.0, 'V': 5.0, 'Pr': 4.0}\",\"('O', 'Pr', 'Si', 'V')\",OTHERS,False\nmp-1183407,\"{'Be': 3.0, 'Si': 1.0}\",\"('Be', 'Si')\",OTHERS,False\nmp-1105280,\"{'Li': 4.0, 'Ta': 4.0, 'O': 12.0}\",\"('Li', 'O', 'Ta')\",OTHERS,False\nmp-1202587,\"{'K': 4.0, 'Ho': 8.0, 'F': 28.0}\",\"('F', 'Ho', 'K')\",OTHERS,False\nmp-1185267,\"{'Li': 1.0, 'Np': 1.0, 'Ru': 2.0}\",\"('Li', 'Np', 'Ru')\",OTHERS,False\nmp-1217134,\"{'Ti': 3.0, 'V': 1.0, 'S': 4.0}\",\"('S', 'Ti', 'V')\",OTHERS,False\nmp-1222159,\"{'Mg': 4.0, 'Fe': 1.0, 'O': 5.0}\",\"('Fe', 'Mg', 'O')\",OTHERS,False\nmp-1020683,\"{'Na': 2.0, 'Ca': 2.0, 'P': 6.0, 'O': 18.0}\",\"('Ca', 'Na', 'O', 'P')\",OTHERS,False\nmp-1097672,\"{'Cs': 2.0, 'Hg': 1.0, 'Te': 1.0}\",\"('Cs', 'Hg', 'Te')\",OTHERS,False\nmp-758647,\"{'Li': 4.0, 'V': 11.0, 'O': 22.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1189298,\"{'Yb': 4.0, 'B': 16.0}\",\"('B', 'Yb')\",OTHERS,False\nmp-1213811,\"{'Cs': 4.0, 'Co': 2.0, 'S': 4.0, 'O': 28.0}\",\"('Co', 'Cs', 'O', 'S')\",OTHERS,False\nmp-620058,\"{'Pb': 12.0, 'N': 72.0}\",\"('N', 'Pb')\",OTHERS,False\nmp-672394,\"{'Yb': 2.0, 'In': 8.0, 'Ni': 2.0}\",\"('In', 'Ni', 'Yb')\",OTHERS,False\nmp-1197699,\"{'Pt': 8.0, 'Cl': 32.0, 'O': 28.0}\",\"('Cl', 'O', 'Pt')\",OTHERS,False\nmp-1229219,\"{'Ag': 3.0, 'Te': 32.0, 'Au': 13.0}\",\"('Ag', 'Au', 'Te')\",OTHERS,False\nmp-1175016,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmvc-15019,\"{'V': 4.0, 'P': 6.0, 'O': 24.0}\",\"('O', 'P', 'V')\",OTHERS,False\nAl 72 Pd 17 Os 11,\"{'Al': 72.0, 'Pd': 17.0, 'Os': 11.0}\",\"('Al', 'Os', 'Pd')\",QC,False\nmp-695887,\"{'K': 3.0, 'Cu': 2.0, 'P': 4.0, 'H': 1.0, 'O': 14.0}\",\"('Cu', 'H', 'K', 'O', 'P')\",OTHERS,False\nmp-1174763,\"{'Li': 5.0, 'Mn': 3.0, 'O': 8.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-774530,\"{'Ba': 8.0, 'Ti': 22.0, 'O': 52.0}\",\"('Ba', 'O', 'Ti')\",OTHERS,False\nmp-753484,\"{'Cr': 4.0, 'O': 4.0, 'F': 4.0}\",\"('Cr', 'F', 'O')\",OTHERS,False\nmp-1204490,\"{'Nb': 8.0, 'Cu': 4.0, 'O': 24.0}\",\"('Cu', 'Nb', 'O')\",OTHERS,False\nmp-556136,\"{'K': 4.0, 'Mo': 4.0, 'I': 4.0, 'O': 24.0}\",\"('I', 'K', 'Mo', 'O')\",OTHERS,False\nmp-1217894,\"{'Ta': 1.0, 'Re': 1.0}\",\"('Re', 'Ta')\",OTHERS,False\nmp-1208931,\"{'Sr': 2.0, 'Er': 1.0, 'Cu': 2.0, 'Bi': 2.0, 'O': 8.0}\",\"('Bi', 'Cu', 'Er', 'O', 'Sr')\",OTHERS,False\nmp-1185751,\"{'Mg': 17.0, 'Al': 11.0, 'Si': 1.0}\",\"('Al', 'Mg', 'Si')\",OTHERS,False\nmp-775168,\"{'Mn': 1.0, 'Cu': 3.0, 'P': 4.0, 'O': 16.0}\",\"('Cu', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1038690,\"{'Ba': 1.0, 'Mg': 30.0, 'Cr': 1.0, 'O': 32.0}\",\"('Ba', 'Cr', 'Mg', 'O')\",OTHERS,False\nmp-1196002,\"{'Mg': 16.0, 'Si': 16.0, 'O': 48.0}\",\"('Mg', 'O', 'Si')\",OTHERS,False\nmp-684265,\"{'Mg': 4.0, 'Al': 8.0, 'Si': 10.0, 'O': 36.0}\",\"('Al', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-769592,\"{'Na': 6.0, 'V': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Na', 'O', 'P', 'V')\",OTHERS,False\nmvc-10706,\"{'Mg': 1.0, 'Sb': 4.0, 'O': 8.0}\",\"('Mg', 'O', 'Sb')\",OTHERS,False\nmp-865174,\"{'Hf': 1.0, 'Cd': 1.0, 'Rh': 2.0}\",\"('Cd', 'Hf', 'Rh')\",OTHERS,False\nmp-675307,\"{'Fe': 10.0, 'Ni': 14.0, 'S': 32.0}\",\"('Fe', 'Ni', 'S')\",OTHERS,False\nmp-867993,\"{'V': 12.0, 'Co': 4.0, 'O': 32.0}\",\"('Co', 'O', 'V')\",OTHERS,False\nmvc-8797,\"{'Ca': 1.0, 'Sn': 4.0, 'O': 8.0}\",\"('Ca', 'O', 'Sn')\",OTHERS,False\nmp-557309,\"{'Na': 6.0, 'Li': 2.0, 'W': 2.0, 'O': 10.0}\",\"('Li', 'Na', 'O', 'W')\",OTHERS,False\nmp-1220427,\"{'Nb': 6.0, 'Ag': 1.0, 'Se': 8.0}\",\"('Ag', 'Nb', 'Se')\",OTHERS,False\nmp-1198112,\"{'Nb': 16.0, 'P': 16.0, 'Cl': 96.0, 'O': 32.0}\",\"('Cl', 'Nb', 'O', 'P')\",OTHERS,False\nmp-1195102,\"{'Rb': 8.0, 'Ag': 40.0, 'P': 16.0, 'S': 64.0}\",\"('Ag', 'P', 'Rb', 'S')\",OTHERS,False\nmvc-7422,\"{'Mg': 8.0, 'Ti': 8.0, 'Bi': 8.0, 'O': 40.0}\",\"('Bi', 'Mg', 'O', 'Ti')\",OTHERS,False\nmp-867328,\"{'K': 2.0, 'Y': 2.0, 'Si': 2.0, 'S': 8.0}\",\"('K', 'S', 'Si', 'Y')\",OTHERS,False\nmp-777110,\"{'Li': 32.0, 'Ti': 13.0, 'Cr': 3.0, 'O': 48.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-581963,\"{'K': 16.0, 'Hf': 12.0, 'Te': 68.0}\",\"('Hf', 'K', 'Te')\",OTHERS,False\nmp-979274,\"{'U': 1.0, 'Ag': 3.0}\",\"('Ag', 'U')\",OTHERS,False\nmp-772992,\"{'Li': 9.0, 'Fe': 3.0, 'W': 7.0, 'O': 28.0}\",\"('Fe', 'Li', 'O', 'W')\",OTHERS,False\nmp-866716,\"{'Rb': 4.0, 'Li': 4.0, 'H': 48.0, 'Se': 12.0, 'N': 16.0}\",\"('H', 'Li', 'N', 'Rb', 'Se')\",OTHERS,False\nmvc-9232,\"{'Zn': 4.0, 'Fe': 4.0, 'Bi': 4.0, 'O': 20.0}\",\"('Bi', 'Fe', 'O', 'Zn')\",OTHERS,False\nmp-770492,\"{'Li': 24.0, 'Mn': 11.0, 'Cr': 1.0, 'O': 36.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-757637,\"{'Li': 14.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1063280,\"{'La': 1.0, 'Hg': 2.0}\",\"('Hg', 'La')\",OTHERS,False\nmp-761246,\"{'Li': 4.0, 'Mn': 2.0, 'Fe': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-6246,\"{'C': 4.0, 'O': 12.0, 'F': 8.0, 'Ca': 8.0}\",\"('C', 'Ca', 'F', 'O')\",OTHERS,False\nmp-1192187,\"{'Na': 12.0, 'Tl': 12.0}\",\"('Na', 'Tl')\",OTHERS,False\nmp-31480,\"{'Ca': 12.0, 'Ga': 8.0, 'Pd': 8.0}\",\"('Ca', 'Ga', 'Pd')\",OTHERS,False\nmp-757837,\"{'Li': 4.0, 'Co': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,False\nmp-768418,\"{'Li': 12.0, 'Mn': 4.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-760024,\"{'Na': 4.0, 'Ti': 20.0, 'O': 40.0}\",\"('Na', 'O', 'Ti')\",OTHERS,False\nmp-694955,\"{'Na': 1.0, 'Li': 2.0, 'La': 3.0, 'Ti': 6.0, 'O': 18.0}\",\"('La', 'Li', 'Na', 'O', 'Ti')\",OTHERS,False\nmp-1016841,\"{'Hf': 1.0, 'Hg': 1.0, 'O': 3.0}\",\"('Hf', 'Hg', 'O')\",OTHERS,False\nmp-1102535,\"{'Pt': 1.0, 'C': 4.0, 'S': 2.0, 'I': 2.0, 'O': 2.0}\",\"('C', 'I', 'O', 'Pt', 'S')\",OTHERS,False\nmp-1184306,\"{'Eu': 1.0, 'Bi': 1.0, 'Pd': 2.0}\",\"('Bi', 'Eu', 'Pd')\",OTHERS,False\nmp-1195356,\"{'Ge': 8.0, 'Bi': 8.0, 'N': 8.0, 'O': 56.0}\",\"('Bi', 'Ge', 'N', 'O')\",OTHERS,False\nmp-1226325,\"{'Cr': 4.0, 'Cd': 1.0, 'Fe': 1.0, 'S': 8.0}\",\"('Cd', 'Cr', 'Fe', 'S')\",OTHERS,False\nmp-1112892,\"{'Cs': 2.0, 'In': 1.0, 'Bi': 1.0, 'Br': 6.0}\",\"('Bi', 'Br', 'Cs', 'In')\",OTHERS,False\nmp-17599,\"{'O': 12.0, 'Ca': 1.0, 'Cu': 3.0, 'Ge': 4.0}\",\"('Ca', 'Cu', 'Ge', 'O')\",OTHERS,False\nmp-708035,\"{'Na': 2.0, 'Zn': 2.0, 'H': 18.0, 'O': 12.0}\",\"('H', 'Na', 'O', 'Zn')\",OTHERS,False\nmp-23581,\"{'B': 14.0, 'O': 26.0, 'Cr': 6.0, 'Br': 2.0}\",\"('B', 'Br', 'Cr', 'O')\",OTHERS,False\nmp-772563,\"{'Li': 8.0, 'V': 4.0, 'O': 8.0, 'F': 12.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-1214142,\"{'Ca': 11.0, 'Si': 4.0, 'Cl': 1.0, 'O': 18.0}\",\"('Ca', 'Cl', 'O', 'Si')\",OTHERS,False\nmp-496,\"{'Si': 8.0, 'Sr': 4.0}\",\"('Si', 'Sr')\",OTHERS,False\nmp-753869,\"{'Li': 2.0, 'V': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1266944,\"{'Al': 2.0, 'Mo': 6.0, 'Se': 4.0, 'Cl': 2.0, 'O': 16.0}\",\"('Al', 'Cl', 'Mo', 'O', 'Se')\",OTHERS,False\nmp-1033843,\"{'Mg': 14.0, 'Cr': 1.0, 'Bi': 1.0, 'O': 16.0}\",\"('Bi', 'Cr', 'Mg', 'O')\",OTHERS,False\nmp-669554,\"{'Mn': 12.0, 'Si': 4.0, 'Ni': 8.0}\",\"('Mn', 'Ni', 'Si')\",OTHERS,False\nmp-1191291,\"{'Hg': 4.0, 'S': 2.0, 'Br': 8.0, 'N': 4.0, 'O': 6.0}\",\"('Br', 'Hg', 'N', 'O', 'S')\",OTHERS,False\nmp-1228072,\"{'Ba': 4.0, 'Ca': 1.0, 'Zr': 5.0, 'O': 15.0}\",\"('Ba', 'Ca', 'O', 'Zr')\",OTHERS,False\nmp-1228271,\"{'Ba': 8.0, 'Cu': 4.0, 'Hg': 4.0, 'O': 17.0}\",\"('Ba', 'Cu', 'Hg', 'O')\",OTHERS,False\nmp-1219237,\"{'Si': 4.0, 'Mo': 1.0, 'W': 1.0}\",\"('Mo', 'Si', 'W')\",OTHERS,False\nmp-1246099,\"{'Ca': 12.0, 'In': 8.0, 'N': 16.0}\",\"('Ca', 'In', 'N')\",OTHERS,False\nmp-1095433,\"{'Tm': 2.0, 'Ga': 8.0, 'Ni': 2.0}\",\"('Ga', 'Ni', 'Tm')\",OTHERS,False\nmp-1201686,\"{'Tl': 4.0, 'Mo': 6.0, 'Se': 2.0, 'O': 24.0}\",\"('Mo', 'O', 'Se', 'Tl')\",OTHERS,False\nmp-697818,\"{'Sr': 4.0, 'Pr': 4.0, 'Mn': 2.0, 'Cu': 2.0, 'O': 16.0}\",\"('Cu', 'Mn', 'O', 'Pr', 'Sr')\",OTHERS,False\nmp-1198628,\"{'Na': 12.0, 'Ru': 4.0, 'O': 16.0}\",\"('Na', 'O', 'Ru')\",OTHERS,False\nmp-762239,\"{'Mn': 2.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Mn', 'O')\",OTHERS,False\nmp-1105173,\"{'Li': 4.0, 'Fe': 2.0, 'Sn': 2.0, 'S': 8.0}\",\"('Fe', 'Li', 'S', 'Sn')\",OTHERS,False\nmp-1143551,\"{'Si': 12.0, 'W': 8.0, 'O': 48.0}\",\"('O', 'Si', 'W')\",OTHERS,False\nmp-27181,\"{'Cl': 16.0, 'K': 4.0, 'Au': 4.0}\",\"('Au', 'Cl', 'K')\",OTHERS,False\nmp-568646,\"{'Ta': 24.0, 'Si': 8.0}\",\"('Si', 'Ta')\",OTHERS,False\nmp-1227655,\"{'Ce': 4.0, 'V': 2.0, 'Co': 32.0}\",\"('Ce', 'Co', 'V')\",OTHERS,False\nmp-1084749,\"{'Ti': 1.0, 'Zn': 1.0, 'Bi': 2.0, 'O': 6.0}\",\"('Bi', 'O', 'Ti', 'Zn')\",OTHERS,False\nmp-676095,\"{'Na': 3.0, 'Pr': 5.0, 'Cl': 18.0}\",\"('Cl', 'Na', 'Pr')\",OTHERS,False\nmp-1036771,\"{'Mg': 30.0, 'V': 1.0, 'Sn': 1.0, 'O': 32.0}\",\"('Mg', 'O', 'Sn', 'V')\",OTHERS,False\nmp-1188091,\"{'Ce': 4.0, 'Ge': 10.0, 'Ir': 6.0}\",\"('Ce', 'Ge', 'Ir')\",OTHERS,False\nmp-8180,\"{'Li': 2.0, 'N': 2.0, 'O': 6.0}\",\"('Li', 'N', 'O')\",OTHERS,False\nmp-553924,\"{'Ag': 16.0, 'P': 4.0, 'I': 4.0, 'O': 16.0}\",\"('Ag', 'I', 'O', 'P')\",OTHERS,False\nmp-1185571,\"{'Cs': 2.0, 'As': 2.0, 'H': 4.0, 'O': 8.0}\",\"('As', 'Cs', 'H', 'O')\",OTHERS,False\nmp-1079086,\"{'U': 3.0, 'Al': 3.0, 'Ni': 3.0}\",\"('Al', 'Ni', 'U')\",OTHERS,False\nmp-770773,\"{'Rb': 8.0, 'S': 8.0, 'O': 28.0}\",\"('O', 'Rb', 'S')\",OTHERS,False\nmp-1174181,\"{'Li': 6.0, 'Co': 4.0, 'O': 10.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1006888,\"{'K': 1.0, 'Y': 1.0, 'S': 2.0}\",\"('K', 'S', 'Y')\",OTHERS,False\nCd 85 Ca 15,\"{'Cd': 85.0, 'Ca': 15.0}\",\"('Ca', 'Cd')\",QC,False\nmvc-6200,\"{'Ca': 6.0, 'Ti': 6.0, 'As': 8.0, 'O': 32.0}\",\"('As', 'Ca', 'O', 'Ti')\",OTHERS,False\nmp-560084,\"{'Ni': 4.0, 'As': 8.0, 'S': 24.0, 'N': 16.0, 'O': 32.0, 'F': 64.0}\",\"('As', 'F', 'N', 'Ni', 'O', 'S')\",OTHERS,False\nmp-1218778,\"{'Sr': 8.0, 'Li': 4.0, 'Si': 4.0, 'N': 12.0}\",\"('Li', 'N', 'Si', 'Sr')\",OTHERS,False\nmp-10739,\"{'P': 3.0, 'Ti': 3.0, 'Ru': 3.0}\",\"('P', 'Ru', 'Ti')\",OTHERS,False\nmp-772810,\"{'V': 4.0, 'Sb': 2.0, 'P': 6.0, 'O': 24.0}\",\"('O', 'P', 'Sb', 'V')\",OTHERS,False\nmp-720245,\"{'Cs': 2.0, 'K': 2.0, 'Na': 2.0, 'Li': 26.0, 'Si': 8.0, 'O': 32.0}\",\"('Cs', 'K', 'Li', 'Na', 'O', 'Si')\",OTHERS,False\nmp-754578,\"{'Tm': 4.0, 'Ga': 4.0, 'O': 12.0}\",\"('Ga', 'O', 'Tm')\",OTHERS,False\nmp-17894,\"{'P': 4.0, 'S': 16.0, 'Rb': 6.0, 'Sm': 2.0}\",\"('P', 'Rb', 'S', 'Sm')\",OTHERS,False\nmp-1232089,\"{'Tm': 16.0, 'Mg': 8.0, 'Se': 32.0}\",\"('Mg', 'Se', 'Tm')\",OTHERS,False\nmp-1216070,\"{'Y': 2.0, 'Mn': 3.0, 'Co': 1.0}\",\"('Co', 'Mn', 'Y')\",OTHERS,False\nAl 71 Pd 21 Re 8,\"{'Al': 71.0, 'Pd': 21.0, 'Re': 8.0}\",\"('Al', 'Pd', 'Re')\",QC,False\nmp-557704,\"{'Tl': 9.0, 'N': 9.0, 'O': 27.0}\",\"('N', 'O', 'Tl')\",OTHERS,False\nmp-6873,\"{'O': 8.0, 'F': 2.0, 'Al': 2.0, 'Si': 2.0, 'Ca': 2.0}\",\"('Al', 'Ca', 'F', 'O', 'Si')\",OTHERS,False\nmp-554023,\"{'Be': 4.0, 'B': 2.0, 'O': 6.0, 'F': 2.0}\",\"('B', 'Be', 'F', 'O')\",OTHERS,False\nmp-772513,\"{'Li': 4.0, 'Cr': 12.0, 'O': 32.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-865629,\"{'Li': 2.0, 'Ce': 1.0, 'Al': 1.0}\",\"('Al', 'Ce', 'Li')\",OTHERS,False\nmp-1009007,\"{'Lu': 1.0, 'Sb': 1.0}\",\"('Lu', 'Sb')\",OTHERS,False\nV 3 Ni 2,\"{'V': 3.0, 'Ni': 2.0}\",\"('Ni', 'V')\",QC,False\nmp-552131,\"{'Cl': 2.0, 'O': 4.0, 'Cs': 2.0}\",\"('Cl', 'Cs', 'O')\",OTHERS,False\nmp-1227047,\"{'Ca': 1.0, 'Yb': 3.0}\",\"('Ca', 'Yb')\",OTHERS,False\nmp-1201292,\"{'K': 8.0, 'Zr': 4.0, 'Si': 12.0, 'O': 40.0}\",\"('K', 'O', 'Si', 'Zr')\",OTHERS,False\nmp-1216314,\"{'V': 1.0, 'Ni': 3.0}\",\"('Ni', 'V')\",OTHERS,False\nmp-1247339,\"{'Ba': 12.0, 'Mo': 8.0, 'N': 16.0}\",\"('Ba', 'Mo', 'N')\",OTHERS,False\nmp-1201907,\"{'Ba': 20.0, 'Hg': 103.0}\",\"('Ba', 'Hg')\",OTHERS,False\nmp-20550,\"{'C': 1.0, 'Ce': 3.0, 'Pb': 1.0}\",\"('C', 'Ce', 'Pb')\",OTHERS,False\nmp-1223187,\"{'La': 6.0, 'Co': 1.0, 'Si': 2.0, 'S': 14.0}\",\"('Co', 'La', 'S', 'Si')\",OTHERS,False\nmp-1018732,\"{'Ho': 2.0, 'Te': 4.0}\",\"('Ho', 'Te')\",OTHERS,False\nmp-1225908,\"{'Cs': 1.0, 'Ti': 3.0, 'Al': 1.0, 'O': 8.0}\",\"('Al', 'Cs', 'O', 'Ti')\",OTHERS,False\nmp-2556,\"{'Sn': 1.0, 'Tl': 1.0}\",\"('Sn', 'Tl')\",OTHERS,False\nmp-1224342,\"{'Hf': 1.0, 'Sc': 3.0, 'Si': 8.0}\",\"('Hf', 'Sc', 'Si')\",OTHERS,False\nmp-1078473,\"{'Mn': 2.0, 'C': 2.0, 'O': 6.0}\",\"('C', 'Mn', 'O')\",OTHERS,False\nmp-570245,\"{'Ba': 4.0, 'Ga': 2.0, 'Ge': 2.0, 'N': 2.0}\",\"('Ba', 'Ga', 'Ge', 'N')\",OTHERS,False\nmp-28431,\"{'I': 4.0, 'Sb': 2.0, 'F': 12.0}\",\"('F', 'I', 'Sb')\",OTHERS,False\nmp-1096004,\"{'Hf': 2.0, 'Nb': 1.0, 'In': 1.0}\",\"('Hf', 'In', 'Nb')\",OTHERS,False\nmp-1111122,\"{'K': 2.0, 'Y': 1.0, 'Tl': 1.0, 'F': 6.0}\",\"('F', 'K', 'Tl', 'Y')\",OTHERS,False\nmp-754333,\"{'Ti': 2.0, 'O': 2.0}\",\"('O', 'Ti')\",OTHERS,False\nmp-1192761,\"{'Cs': 8.0, 'Hg': 4.0, 'Cl': 16.0}\",\"('Cl', 'Cs', 'Hg')\",OTHERS,False\nmp-1225182,\"{'Gd': 4.0, 'Nb': 2.0, 'Ga': 2.0, 'O': 14.0}\",\"('Ga', 'Gd', 'Nb', 'O')\",OTHERS,False\nmp-21819,\"{'P': 19.0, 'Cr': 30.0, 'U': 2.0}\",\"('Cr', 'P', 'U')\",OTHERS,False\nmp-1059160,\"{'Br': 1.0, 'N': 1.0}\",\"('Br', 'N')\",OTHERS,False\nmp-1103670,\"{'Tb': 4.0, 'Ga': 4.0, 'Ni': 4.0}\",\"('Ga', 'Ni', 'Tb')\",OTHERS,False\nmp-556562,\"{'Li': 2.0, 'As': 2.0, 'H': 12.0, 'O': 6.0, 'F': 12.0}\",\"('As', 'F', 'H', 'Li', 'O')\",OTHERS,False\nmp-1039188,\"{'Mg': 2.0, 'Bi': 2.0}\",\"('Bi', 'Mg')\",OTHERS,False\nmp-1096899,\"{'Cr': 4.0, 'N': 8.0}\",\"('Cr', 'N')\",OTHERS,False\nmp-1245841,\"{'K': 12.0, 'Mo': 2.0, 'N': 8.0}\",\"('K', 'Mo', 'N')\",OTHERS,False\nmvc-6139,\"{'Zn': 2.0, 'Ni': 4.0, 'O': 8.0}\",\"('Ni', 'O', 'Zn')\",OTHERS,False\nmp-1221104,\"{'Na': 2.0, 'Ca': 2.0, 'Al': 2.0, 'Si': 4.0, 'O': 14.0}\",\"('Al', 'Ca', 'Na', 'O', 'Si')\",OTHERS,False\nmp-770555,\"{'Mn': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Mn', 'O', 'P')\",OTHERS,False\nmvc-8355,\"{'Ca': 2.0, 'Co': 2.0, 'Ge': 4.0, 'O': 12.0}\",\"('Ca', 'Co', 'Ge', 'O')\",OTHERS,False\nmp-1245831,\"{'Ba': 6.0, 'Sc': 2.0, 'N': 6.0}\",\"('Ba', 'N', 'Sc')\",OTHERS,False\nmp-1030853,\"{'Rb': 1.0, 'Mg': 6.0, 'Si': 1.0, 'O': 8.0}\",\"('Mg', 'O', 'Rb', 'Si')\",OTHERS,False\nmp-558712,\"{'Ag': 8.0, 'Bi': 4.0, 'O': 12.0}\",\"('Ag', 'Bi', 'O')\",OTHERS,False\nmp-1196766,\"{'Ce': 2.0, 'Ni': 4.0, 'N': 34.0, 'O': 48.0}\",\"('Ce', 'N', 'Ni', 'O')\",OTHERS,False\nmp-1213621,\"{'Dy': 4.0, 'H': 52.0, 'C': 32.0, 'N': 24.0, 'O': 52.0}\",\"('C', 'Dy', 'H', 'N', 'O')\",OTHERS,False\nmp-1200692,\"{'Si': 17.0, 'C': 17.0}\",\"('C', 'Si')\",OTHERS,False\nmp-1185311,\"{'Li': 1.0, 'Cr': 1.0, 'O': 3.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-556202,\"{'Cu': 2.0, 'C': 8.0, 'O': 8.0}\",\"('C', 'Cu', 'O')\",OTHERS,False\nmp-1093705,\"{'K': 2.0, 'Hg': 1.0, 'Se': 1.0}\",\"('Hg', 'K', 'Se')\",OTHERS,False\nmp-757023,\"{'V': 4.0, 'Cr': 4.0, 'O': 12.0}\",\"('Cr', 'O', 'V')\",OTHERS,False\nmp-760026,\"{'Li': 6.0, 'Mn': 5.0, 'Sb': 1.0, 'O': 12.0}\",\"('Li', 'Mn', 'O', 'Sb')\",OTHERS,False\nmp-1238525,\"{'Al': 4.0, 'S': 8.0, 'N': 4.0, 'O': 80.0}\",\"('Al', 'N', 'O', 'S')\",OTHERS,False\nmp-25359,\"{'O': 32.0, 'P': 6.0, 'Mo': 6.0}\",\"('Mo', 'O', 'P')\",OTHERS,False\nmp-16852,\"{'Ni': 6.0, 'Ga': 14.0}\",\"('Ga', 'Ni')\",OTHERS,False\nmp-744260,\"{'Li': 8.0, 'La': 8.0, 'Mo': 16.0, 'O': 64.0}\",\"('La', 'Li', 'Mo', 'O')\",OTHERS,False\nmp-1219975,\"{'Rb': 8.0, 'Mo': 12.0, 'O': 44.0}\",\"('Mo', 'O', 'Rb')\",OTHERS,False\nmp-1018941,\"{'Pr': 2.0, 'Te': 2.0, 'Cl': 2.0}\",\"('Cl', 'Pr', 'Te')\",OTHERS,False\nmp-1253012,\"{'Al': 8.0, 'Fe': 6.0, 'O': 24.0}\",\"('Al', 'Fe', 'O')\",OTHERS,False\nCd 65 Mg 20 Tb 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Tb': 15.0}\",\"('Cd', 'Mg', 'Tb')\",QC,False\nmp-1507,\"{'Te': 2.0, 'Hg': 2.0}\",\"('Hg', 'Te')\",OTHERS,False\nmvc-6155,\"{'Ti': 6.0, 'As': 8.0, 'O': 32.0}\",\"('As', 'O', 'Ti')\",OTHERS,False\nmp-1076878,\"{'La': 28.0, 'Sm': 4.0, 'V': 32.0, 'O': 80.0}\",\"('La', 'O', 'Sm', 'V')\",OTHERS,False\nmp-1200699,\"{'P': 8.0, 'O': 12.0, 'F': 16.0}\",\"('F', 'O', 'P')\",OTHERS,False\nmp-766885,\"{'Sb': 18.0, 'P': 6.0, 'O': 42.0}\",\"('O', 'P', 'Sb')\",OTHERS,False\nAg 2 In 4 Ca 1,\"{'Ag': 2.0, 'In': 4.0, 'Ca': 1.0}\",\"('Ag', 'Ca', 'In')\",AC,False\nmp-973433,\"{'Lu': 1.0, 'Sc': 1.0, 'Ru': 2.0}\",\"('Lu', 'Ru', 'Sc')\",OTHERS,False\nmp-103,{'Hf': 2.0},\"('Hf',)\",OTHERS,False\nmp-1238169,\"{'Hg': 12.0, 'H': 16.0, 'I': 8.0, 'O': 48.0}\",\"('H', 'Hg', 'I', 'O')\",OTHERS,False\nmp-556697,\"{'Ca': 2.0, 'Ta': 4.0, 'Bi': 4.0, 'O': 18.0}\",\"('Bi', 'Ca', 'O', 'Ta')\",OTHERS,False\nmp-1019052,\"{'Re': 3.0, 'N': 3.0}\",\"('N', 'Re')\",OTHERS,False\nmp-1213132,\"{'Er': 4.0, 'Mg': 4.0, 'B': 20.0, 'O': 40.0}\",\"('B', 'Er', 'Mg', 'O')\",OTHERS,False\nmp-567969,\"{'Ho': 1.0, 'B': 2.0, 'Rh': 2.0, 'C': 1.0}\",\"('B', 'C', 'Ho', 'Rh')\",OTHERS,False\nmp-705520,\"{'Sn': 12.0, 'H': 16.0, 'N': 8.0, 'O': 40.0}\",\"('H', 'N', 'O', 'Sn')\",OTHERS,False\nmp-1075152,\"{'Mg': 6.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-13941,\"{'O': 6.0, 'Sr': 2.0, 'Yb': 1.0, 'Re': 1.0}\",\"('O', 'Re', 'Sr', 'Yb')\",OTHERS,False\nmp-510659,\"{'Ag': 4.0, 'Cu': 4.0, 'V': 4.0, 'O': 16.0}\",\"('Ag', 'Cu', 'O', 'V')\",OTHERS,False\nmp-7343,\"{'Y': 12.0, 'Pt': 4.0}\",\"('Pt', 'Y')\",OTHERS,False\nmp-706241,\"{'Rb': 8.0, 'W': 13.0, 'O': 43.0}\",\"('O', 'Rb', 'W')\",OTHERS,False\nmp-3345,\"{'S': 8.0, 'Cu': 6.0, 'As': 2.0}\",\"('As', 'Cu', 'S')\",OTHERS,False\nmp-10636,\"{'Sr': 2.0, 'Sb': 4.0}\",\"('Sb', 'Sr')\",OTHERS,False\nmp-770547,\"{'Mn': 8.0, 'P': 4.0, 'O': 20.0}\",\"('Mn', 'O', 'P')\",OTHERS,False\nmp-1019610,\"{'Cs': 16.0, 'Mg': 8.0, 'Si': 40.0, 'O': 96.0}\",\"('Cs', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1196867,\"{'La': 8.0, 'N': 24.0}\",\"('La', 'N')\",OTHERS,False\nmp-559938,\"{'Li': 2.0, 'V': 6.0, 'Te': 4.0, 'O': 24.0}\",\"('Li', 'O', 'Te', 'V')\",OTHERS,False\nmp-505682,\"{'Dy': 24.0, 'Te': 12.0}\",\"('Dy', 'Te')\",OTHERS,False\nmp-31763,\"{'O': 12.0, 'Ca': 4.0, 'Fe': 2.0, 'Re': 2.0}\",\"('Ca', 'Fe', 'O', 'Re')\",OTHERS,False\nmp-1191401,\"{'Hf': 8.0, 'Fe': 16.0}\",\"('Fe', 'Hf')\",OTHERS,False\nmp-560879,\"{'C': 4.0, 'S': 8.0, 'N': 12.0, 'Cl': 12.0}\",\"('C', 'Cl', 'N', 'S')\",OTHERS,False\nmp-972869,\"{'Sc': 2.0, 'Ga': 1.0, 'Pt': 1.0}\",\"('Ga', 'Pt', 'Sc')\",OTHERS,False\nmp-1203456,\"{'Hg': 2.0, 'H': 32.0, 'Br': 12.0, 'N': 8.0}\",\"('Br', 'H', 'Hg', 'N')\",OTHERS,False\nmvc-5646,\"{'Ti': 2.0, 'Zn': 4.0, 'Ir': 2.0, 'O': 12.0}\",\"('Ir', 'O', 'Ti', 'Zn')\",OTHERS,False\nAl 40 Mn 10.1 Si 7.4,\"{'Al': 40.0, 'Mn': 10.1, 'Si': 7.4}\",\"('Al', 'Mn', 'Si')\",AC,False\nmp-775268,\"{'Li': 8.0, 'Mn': 7.0, 'Fe': 1.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1180695,\"{'Rb': 24.0, 'V': 8.0, 'O': 64.0}\",\"('O', 'Rb', 'V')\",OTHERS,False\nmp-1205898,\"{'Sc': 6.0, 'Te': 2.0, 'Ru': 1.0}\",\"('Ru', 'Sc', 'Te')\",OTHERS,False\nmp-763417,\"{'Co': 6.0, 'O': 2.0, 'F': 10.0}\",\"('Co', 'F', 'O')\",OTHERS,False\nmp-1221769,\"{'Mn': 8.0, 'B': 2.0}\",\"('B', 'Mn')\",OTHERS,False\nmp-568069,\"{'Ti': 4.0, 'Bi': 2.0}\",\"('Bi', 'Ti')\",OTHERS,False\nmp-1223482,\"{'Li': 6.0, 'Mo': 30.0, 'Se': 38.0}\",\"('Li', 'Mo', 'Se')\",OTHERS,False\nmp-1099867,\"{'K': 2.0, 'Na': 6.0, 'V': 4.0, 'Mo': 4.0, 'O': 24.0}\",\"('K', 'Mo', 'Na', 'O', 'V')\",OTHERS,False\nmp-16517,\"{'Al': 4.0, 'Ni': 2.0, 'Tm': 2.0}\",\"('Al', 'Ni', 'Tm')\",OTHERS,False\nmp-531051,\"{'Ca': 16.0, 'Nb': 8.0, 'O': 36.0}\",\"('Ca', 'Nb', 'O')\",OTHERS,False\nmp-773026,\"{'Ti': 12.0, 'Fe': 5.0, 'O': 32.0}\",\"('Fe', 'O', 'Ti')\",OTHERS,False\nmp-1086664,\"{'Rb': 1.0, 'Cd': 4.0, 'As': 3.0}\",\"('As', 'Cd', 'Rb')\",OTHERS,False\nmp-27479,\"{'O': 36.0, 'Pr': 8.0, 'W': 8.0}\",\"('O', 'Pr', 'W')\",OTHERS,False\nmp-1175629,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1210353,\"{'Na': 8.0, 'Al': 6.0, 'Si': 6.0, 'S': 2.0, 'O': 32.0}\",\"('Al', 'Na', 'O', 'S', 'Si')\",OTHERS,False\nmp-1210174,\"{'Nb': 8.0, 'Co': 8.0, 'Si': 12.0}\",\"('Co', 'Nb', 'Si')\",OTHERS,False\nmp-1224049,\"{'K': 6.0, 'H': 2.0, 'Se': 4.0, 'O': 16.0}\",\"('H', 'K', 'O', 'Se')\",OTHERS,False\nmp-1189619,\"{'Eu': 10.0, 'Al': 10.0}\",\"('Al', 'Eu')\",OTHERS,False\nmp-505248,\"{'Cr': 2.0, 'Rb': 6.0, 'O': 12.0, 'H': 12.0}\",\"('Cr', 'H', 'O', 'Rb')\",OTHERS,False\nmp-13274,\"{'C': 1.0, 'O': 4.0, 'Na': 4.0}\",\"('C', 'Na', 'O')\",OTHERS,False\nmp-864949,\"{'Mn': 1.0, 'Ga': 1.0, 'Rh': 2.0}\",\"('Ga', 'Mn', 'Rh')\",OTHERS,False\nmp-1214720,\"{'Ba': 2.0, 'Gd': 1.0, 'Cu': 4.0, 'O': 8.0}\",\"('Ba', 'Cu', 'Gd', 'O')\",OTHERS,False\nAg 42.2 In 42.6 Tm 15.2,\"{'Ag': 42.2, 'In': 42.6, 'Tm': 15.2}\",\"('Ag', 'In', 'Tm')\",AC,False\nmp-1198331,\"{'Rb': 16.0, 'Li': 4.0, 'H': 12.0, 'S': 16.0, 'O': 64.0}\",\"('H', 'Li', 'O', 'Rb', 'S')\",OTHERS,False\nmp-1177172,\"{'Li': 8.0, 'V': 10.0, 'Cr': 8.0, 'O': 36.0}\",\"('Cr', 'Li', 'O', 'V')\",OTHERS,False\nmp-695254,\"{'Ca': 10.0, 'La': 6.0, 'Mg': 3.0, 'Ti': 13.0, 'O': 48.0}\",\"('Ca', 'La', 'Mg', 'O', 'Ti')\",OTHERS,False\nmp-1228048,\"{'Ba': 4.0, 'Ta': 2.0, 'Ti': 1.0, 'Zn': 1.0, 'O': 12.0}\",\"('Ba', 'O', 'Ta', 'Ti', 'Zn')\",OTHERS,False\nmp-7386,\"{'F': 8.0, 'Na': 2.0, 'Ag': 2.0}\",\"('Ag', 'F', 'Na')\",OTHERS,False\nmp-978785,\"{'Si': 16.0, 'Mo': 4.0, 'Pt': 12.0}\",\"('Mo', 'Pt', 'Si')\",OTHERS,False\nmp-763763,\"{'Li': 4.0, 'Cr': 3.0, 'Fe': 2.0, 'Co': 3.0, 'O': 16.0}\",\"('Co', 'Cr', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-758488,\"{'Li': 2.0, 'P': 6.0, 'W': 4.0, 'O': 26.0}\",\"('Li', 'O', 'P', 'W')\",OTHERS,False\nmp-3193,\"{'O': 20.0, 'Na': 8.0, 'Si': 8.0}\",\"('Na', 'O', 'Si')\",OTHERS,False\nAu 61.2 Sn 24.3 Ca 14.5,\"{'Au': 61.2, 'Sn': 24.3, 'Ca': 14.5}\",\"('Au', 'Ca', 'Sn')\",AC,False\nmp-757655,\"{'Li': 17.0, 'Ni': 11.0, 'O': 28.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmp-1225167,\"{'Gd': 3.0, 'Y': 3.0, 'Fe': 23.0}\",\"('Fe', 'Gd', 'Y')\",OTHERS,False\nmp-867574,\"{'Li': 4.0, 'Mn': 8.0, 'Si': 8.0, 'O': 26.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-574176,\"{'Ba': 4.0, 'In': 8.0, 'Au': 8.0}\",\"('Au', 'Ba', 'In')\",OTHERS,False\nmp-1204738,\"{'Fe': 4.0, 'As': 8.0, 'S': 16.0, 'O': 32.0, 'F': 48.0}\",\"('As', 'F', 'Fe', 'O', 'S')\",OTHERS,False\nmp-631631,\"{'Mn': 5.0, 'V': 2.0, 'Pb': 3.0, 'O': 16.0}\",\"('Mn', 'O', 'Pb', 'V')\",OTHERS,False\nmp-1222471,\"{'Mg': 7.0, 'Ti': 1.0, 'Al': 6.0, 'Si': 8.0, 'H': 8.0, 'O': 38.0}\",\"('Al', 'H', 'Mg', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-561037,\"{'K': 8.0, 'U': 1.0, 'Cr': 4.0, 'N': 2.0, 'O': 24.0}\",\"('Cr', 'K', 'N', 'O', 'U')\",OTHERS,False\nmp-759405,\"{'Bi': 12.0, 'O': 8.0, 'F': 20.0}\",\"('Bi', 'F', 'O')\",OTHERS,False\nmp-569576,\"{'La': 20.0, 'Si': 12.0, 'N': 36.0}\",\"('La', 'N', 'Si')\",OTHERS,False\nmp-1106150,\"{'Ce': 1.0, 'Mn': 4.0, 'Cu': 3.0, 'O': 12.0}\",\"('Ce', 'Cu', 'Mn', 'O')\",OTHERS,False\nmp-770899,\"{'Li': 4.0, 'V': 6.0, 'O': 16.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-569456,\"{'Ti': 4.0, 'Hg': 24.0, 'As': 16.0, 'Br': 28.0}\",\"('As', 'Br', 'Hg', 'Ti')\",OTHERS,False\nmp-850091,\"{'Li': 9.0, 'Nb': 10.0, 'Cr': 6.0, 'P': 24.0, 'O': 96.0}\",\"('Cr', 'Li', 'Nb', 'O', 'P')\",OTHERS,False\nmp-18807,\"{'O': 7.0, 'V': 2.0, 'Zn': 2.0}\",\"('O', 'V', 'Zn')\",OTHERS,False\nmp-683975,\"{'Yb': 12.0, 'K': 24.0, 'P': 20.0, 'S': 80.0}\",\"('K', 'P', 'S', 'Yb')\",OTHERS,False\nmvc-16255,\"{'Ba': 1.0, 'Al': 1.0, 'Cu': 1.0, 'W': 1.0, 'O': 5.0}\",\"('Al', 'Ba', 'Cu', 'O', 'W')\",OTHERS,False\nmp-504876,\"{'Hg': 19.0, 'Br': 18.0, 'As': 10.0}\",\"('As', 'Br', 'Hg')\",OTHERS,False\nmp-1251156,\"{'Sr': 4.0, 'Al': 2.0, 'Cu': 6.0, 'O': 14.0}\",\"('Al', 'Cu', 'O', 'Sr')\",OTHERS,False\nmp-1187229,\"{'Sr': 1.0, 'La': 3.0}\",\"('La', 'Sr')\",OTHERS,False\nmp-8914,\"{'Ga': 4.0, 'Sr': 4.0, 'Sn': 4.0}\",\"('Ga', 'Sn', 'Sr')\",OTHERS,False\nmp-1208283,\"{'Ti': 10.0, 'Co': 2.0, 'Sn': 6.0}\",\"('Co', 'Sn', 'Ti')\",OTHERS,False\nmp-1104706,\"{'Na': 2.0, 'Ca': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Ca', 'Na', 'O', 'Si')\",OTHERS,False\nmp-777669,\"{'Li': 16.0, 'Fe': 8.0, 'F': 32.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-757690,\"{'Li': 2.0, 'Nb': 2.0, 'P': 8.0, 'O': 24.0}\",\"('Li', 'Nb', 'O', 'P')\",OTHERS,False\nmp-26005,\"{'Li': 2.0, 'O': 48.0, 'P': 14.0, 'Mn': 12.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-627,\"{'Se': 1.0, 'Np': 1.0}\",\"('Np', 'Se')\",OTHERS,False\nmp-3262,\"{'Si': 2.0, 'Co': 2.0, 'Tm': 1.0}\",\"('Co', 'Si', 'Tm')\",OTHERS,False\nmp-1195876,\"{'U': 8.0, 'B': 24.0, 'Mo': 4.0}\",\"('B', 'Mo', 'U')\",OTHERS,False\nmp-1186882,\"{'Rb': 3.0, 'Zr': 1.0}\",\"('Rb', 'Zr')\",OTHERS,False\nmp-1245820,\"{'Sr': 2.0, 'C': 14.0, 'N': 20.0}\",\"('C', 'N', 'Sr')\",OTHERS,False\nmp-1066655,\"{'K': 3.0, 'Rh': 1.0}\",\"('K', 'Rh')\",OTHERS,False\nmp-20433,\"{'Ti': 6.0, 'In': 8.0}\",\"('In', 'Ti')\",OTHERS,False\nmp-6121,\"{'O': 20.0, 'Zn': 4.0, 'Y': 8.0, 'Ba': 4.0}\",\"('Ba', 'O', 'Y', 'Zn')\",OTHERS,False\nmp-1027109,\"{'Mo': 3.0, 'W': 1.0, 'Se': 6.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-624762,\"{'Fe': 16.0, 'Te': 8.0, 'C': 44.0, 'O': 44.0}\",\"('C', 'Fe', 'O', 'Te')\",OTHERS,False\nmp-745021,\"{'Sr': 8.0, 'Mg': 8.0, 'V': 12.0, 'O': 56.0}\",\"('Mg', 'O', 'Sr', 'V')\",OTHERS,False\nmp-759173,\"{'Li': 1.0, 'V': 3.0, 'O': 8.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-19910,\"{'Mg': 2.0, 'Ni': 4.0, 'Ce': 4.0}\",\"('Ce', 'Mg', 'Ni')\",OTHERS,False\nmp-1112949,\"{'Cs': 3.0, 'Tl': 1.0, 'I': 6.0}\",\"('Cs', 'I', 'Tl')\",OTHERS,False\nmp-1111166,\"{'K': 3.0, 'Sb': 1.0, 'Br': 6.0}\",\"('Br', 'K', 'Sb')\",OTHERS,False\nmp-552623,\"{'O': 4.0, 'Na': 4.0, 'C': 1.0}\",\"('C', 'Na', 'O')\",OTHERS,False\nmp-1205678,\"{'Ho': 4.0, 'Mg': 2.0, 'Si': 4.0}\",\"('Ho', 'Mg', 'Si')\",OTHERS,False\nmp-776169,\"{'Li': 8.0, 'Mn': 4.0, 'F': 20.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-849764,\"{'H': 112.0, 'Pt': 8.0, 'Br': 20.0, 'N': 36.0, 'O': 8.0}\",\"('Br', 'H', 'N', 'O', 'Pt')\",OTHERS,False\nmvc-7907,\"{'Mg': 3.0, 'Ta': 6.0, 'Fe': 4.0, 'O': 24.0}\",\"('Fe', 'Mg', 'O', 'Ta')\",OTHERS,False\nmp-5014,\"{'S': 4.0, 'Cu': 4.0, 'Ag': 4.0}\",\"('Ag', 'Cu', 'S')\",OTHERS,False\nmp-974332,\"{'S': 3.0, 'Br': 1.0}\",\"('Br', 'S')\",OTHERS,False\nmp-1097379,\"{'Ti': 1.0, 'Nb': 2.0, 'Mo': 1.0}\",\"('Mo', 'Nb', 'Ti')\",OTHERS,False\nmp-676749,\"{'Li': 6.0, 'U': 3.0, 'Cl': 18.0}\",\"('Cl', 'Li', 'U')\",OTHERS,False\nmp-673703,\"{'Rb': 3.0, 'Bi': 7.0, 'Pb': 3.0, 'I': 10.0, 'O': 10.0}\",\"('Bi', 'I', 'O', 'Pb', 'Rb')\",OTHERS,False\nmp-757001,\"{'Y': 15.0, 'Tm': 1.0, 'O': 24.0}\",\"('O', 'Tm', 'Y')\",OTHERS,False\nmp-1013549,\"{'Ba': 3.0, 'Bi': 1.0, 'N': 1.0}\",\"('Ba', 'Bi', 'N')\",OTHERS,False\nmp-1232160,\"{'Tb': 4.0, 'Mg': 4.0, 'S': 12.0}\",\"('Mg', 'S', 'Tb')\",OTHERS,False\nmp-559642,\"{'Ca': 2.0, 'Zr': 2.0, 'Al': 18.0, 'B': 2.0, 'O': 36.0}\",\"('Al', 'B', 'Ca', 'O', 'Zr')\",OTHERS,False\nmp-1183505,\"{'Bi': 6.0, 'As': 2.0}\",\"('As', 'Bi')\",OTHERS,False\nmp-1186550,\"{'Pm': 1.0, 'Cd': 1.0, 'Cu': 2.0}\",\"('Cd', 'Cu', 'Pm')\",OTHERS,False\nmp-1204045,\"{'U': 4.0, 'Fe': 30.0, 'Ge': 4.0}\",\"('Fe', 'Ge', 'U')\",OTHERS,False\nmp-640286,\"{'Ce': 4.0, 'Cu': 16.0, 'Sn': 4.0}\",\"('Ce', 'Cu', 'Sn')\",OTHERS,False\nmp-1097589,\"{'Ta': 1.0, 'V': 1.0, 'Mo': 2.0}\",\"('Mo', 'Ta', 'V')\",OTHERS,False\nmp-1100379,\"{'Ca': 12.0, 'Sn': 12.0, 'S': 36.0}\",\"('Ca', 'S', 'Sn')\",OTHERS,False\nmp-30820,\"{'Li': 2.0, 'Al': 1.0, 'Rh': 1.0}\",\"('Al', 'Li', 'Rh')\",OTHERS,False\nmp-22903,\"{'Rb': 1.0, 'I': 1.0}\",\"('I', 'Rb')\",OTHERS,False\nmp-510607,\"{'Sr': 4.0, 'Cr': 4.0, 'O': 16.0}\",\"('Cr', 'O', 'Sr')\",OTHERS,False\nZn 65 Mg 26 Ho 9,\"{'Zn': 65.0, 'Mg': 26.0, 'Ho': 9.0}\",\"('Ho', 'Mg', 'Zn')\",QC,False\nmp-10193,\"{'P': 1.0, 'Lu': 1.0, 'Pt': 1.0}\",\"('Lu', 'P', 'Pt')\",OTHERS,False\nmp-31049,\"{'O': 4.0, 'Nd': 2.0}\",\"('Nd', 'O')\",OTHERS,False\nmp-768225,\"{'Cu': 4.0, 'Ni': 2.0, 'O': 8.0}\",\"('Cu', 'Ni', 'O')\",OTHERS,False\nmp-772825,\"{'Ta': 8.0, 'Be': 4.0, 'O': 24.0}\",\"('Be', 'O', 'Ta')\",OTHERS,False\nmp-1027112,\"{'Mo': 1.0, 'W': 3.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-416,\"{'Cr': 6.0, 'Os': 2.0}\",\"('Cr', 'Os')\",OTHERS,False\nmp-754992,\"{'Lu': 1.0, 'Tl': 1.0, 'O': 2.0}\",\"('Lu', 'O', 'Tl')\",OTHERS,False\nmp-1194289,\"{'Ga': 2.0, 'Co': 21.0, 'B': 6.0}\",\"('B', 'Co', 'Ga')\",OTHERS,False\nmp-865343,\"{'Tm': 2.0, 'Ir': 1.0, 'Os': 1.0}\",\"('Ir', 'Os', 'Tm')\",OTHERS,False\nmp-1995,\"{'C': 2.0, 'Pr': 1.0}\",\"('C', 'Pr')\",OTHERS,False\nmp-22958,\"{'O': 3.0, 'K': 1.0, 'Br': 1.0}\",\"('Br', 'K', 'O')\",OTHERS,False\nmp-1203528,\"{'K': 8.0, 'Ba': 2.0, 'V': 12.0, 'O': 36.0}\",\"('Ba', 'K', 'O', 'V')\",OTHERS,False\nmp-1245213,\"{'Zn': 50.0, 'S': 50.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-1222070,\"{'Mg': 1.0, 'Ti': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Mg', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1037934,\"{'Ca': 1.0, 'Mg': 30.0, 'Cd': 1.0, 'O': 32.0}\",\"('Ca', 'Cd', 'Mg', 'O')\",OTHERS,False\nmp-4991,\"{'O': 14.0, 'Sn': 4.0, 'Tb': 4.0}\",\"('O', 'Sn', 'Tb')\",OTHERS,False\nmp-505824,\"{'Cs': 2.0, 'Pd': 1.0, 'C': 2.0}\",\"('C', 'Cs', 'Pd')\",OTHERS,False\nmp-662527,\"{'Ce': 8.0, 'Si': 8.0, 'O': 28.0}\",\"('Ce', 'O', 'Si')\",OTHERS,False\nmp-542566,\"{'Pr': 6.0, 'Pd': 12.0, 'Sb': 10.0}\",\"('Pd', 'Pr', 'Sb')\",OTHERS,False\nmp-1228668,\"{'Ba': 2.0, 'Cu': 3.0, 'O': 6.0}\",\"('Ba', 'Cu', 'O')\",OTHERS,False\nmp-1187370,\"{'Tb': 1.0, 'Pm': 1.0, 'Ir': 2.0}\",\"('Ir', 'Pm', 'Tb')\",OTHERS,False\nmp-754919,\"{'V': 2.0, 'O': 2.0, 'F': 6.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-1221791,\"{'Mn': 2.0, 'Sb': 2.0, 'Pt': 1.0, 'Au': 1.0}\",\"('Au', 'Mn', 'Pt', 'Sb')\",OTHERS,False\nmp-1147685,\"{'Li': 20.0, 'Zn': 2.0, 'P': 8.0, 'S': 32.0}\",\"('Li', 'P', 'S', 'Zn')\",OTHERS,False\nmp-19108,\"{'Ca': 4.0, 'Mn': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Ca', 'Mn', 'O', 'W')\",OTHERS,False\nmp-29982,\"{'B': 6.0, 'C': 3.0, 'Nb': 7.0}\",\"('B', 'C', 'Nb')\",OTHERS,False\nmvc-16311,\"{'Y': 1.0, 'Sb': 1.0, 'W': 2.0, 'O': 8.0}\",\"('O', 'Sb', 'W', 'Y')\",OTHERS,False\nmp-1187312,\"{'Tb': 1.0, 'As': 3.0}\",\"('As', 'Tb')\",OTHERS,False\nmp-1106223,\"{'Nd': 4.0, 'Ge': 8.0, 'Pt': 4.0}\",\"('Ge', 'Nd', 'Pt')\",OTHERS,False\nmp-1232246,\"{'Ce': 32.0, 'Mg': 16.0, 'S': 64.0}\",\"('Ce', 'Mg', 'S')\",OTHERS,False\nmp-1208599,\"{'Sr': 2.0, 'Li': 2.0, 'Ti': 2.0, 'F': 12.0}\",\"('F', 'Li', 'Sr', 'Ti')\",OTHERS,False\nmp-753127,\"{'Na': 3.0, 'Li': 4.0, 'Mn': 5.0, 'O': 9.0}\",\"('Li', 'Mn', 'Na', 'O')\",OTHERS,False\nmp-27276,\"{'Si': 12.0, 'Ni': 31.0}\",\"('Ni', 'Si')\",OTHERS,False\nmp-766414,\"{'Mn': 2.0, 'Fe': 6.0, 'P': 8.0, 'O': 32.0}\",\"('Fe', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1178773,\"{'Y': 10.0, 'Fe': 20.0}\",\"('Fe', 'Y')\",OTHERS,False\nmp-1247451,\"{'Mg': 6.0, 'Ga': 6.0, 'N': 10.0}\",\"('Ga', 'Mg', 'N')\",OTHERS,False\nmp-1278,\"{'Si': 2.0, 'Zr': 4.0}\",\"('Si', 'Zr')\",OTHERS,False\nmp-1227648,\"{'Ca': 1.0, 'In': 6.0, 'Cu': 6.0}\",\"('Ca', 'Cu', 'In')\",OTHERS,False\nmp-1056985,\"{'Ti': 1.0, 'Pd': 1.0}\",\"('Pd', 'Ti')\",OTHERS,False\nmp-1190582,\"{'Mg': 6.0, 'Nb': 1.0, 'H': 16.0}\",\"('H', 'Mg', 'Nb')\",OTHERS,False\nmp-1214524,\"{'Ba': 8.0, 'Dy': 2.0, 'Cu': 6.0, 'O': 18.0}\",\"('Ba', 'Cu', 'Dy', 'O')\",OTHERS,False\nmp-4068,\"{'Na': 8.0, 'S': 12.0, 'Ge': 4.0}\",\"('Ge', 'Na', 'S')\",OTHERS,False\nmp-771164,\"{'Na': 4.0, 'Mn': 2.0, 'B': 2.0, 'As': 2.0, 'O': 14.0}\",\"('As', 'B', 'Mn', 'Na', 'O')\",OTHERS,False\nmp-767576,\"{'Li': 12.0, 'Mn': 2.0, 'O': 8.0, 'F': 2.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-703595,\"{'Cd': 13.0, 'I': 28.0}\",\"('Cd', 'I')\",OTHERS,False\nmp-676552,\"{'Nd': 2.0, 'Th': 8.0, 'O': 19.0}\",\"('Nd', 'O', 'Th')\",OTHERS,False\nmp-510342,\"{'Dy': 4.0, 'Te': 8.0, 'O': 22.0}\",\"('Dy', 'O', 'Te')\",OTHERS,False\nmp-1215613,\"{'Yb': 7.0, 'Mg': 1.0, 'Pt': 4.0}\",\"('Mg', 'Pt', 'Yb')\",OTHERS,False\nmp-1190998,\"{'Pr': 8.0, 'P': 8.0, 'S': 8.0}\",\"('P', 'Pr', 'S')\",OTHERS,False\nmp-1207084,\"{'Al': 1.0, 'Ni': 3.0, 'C': 1.0}\",\"('Al', 'C', 'Ni')\",OTHERS,False\nmp-755470,\"{'Li': 2.0, 'Bi': 1.0, 'S': 2.0}\",\"('Bi', 'Li', 'S')\",OTHERS,False\nmp-756054,\"{'Zr': 8.0, 'N': 8.0, 'O': 4.0}\",\"('N', 'O', 'Zr')\",OTHERS,False\nmp-626467,\"{'Al': 8.0, 'H': 24.0, 'O': 24.0}\",\"('Al', 'H', 'O')\",OTHERS,False\nmp-1080178,\"{'Gd': 3.0, 'Zn': 3.0, 'Pd': 3.0}\",\"('Gd', 'Pd', 'Zn')\",OTHERS,False\nmp-1209792,\"{'Rb': 1.0, 'Cu': 2.0, 'O': 10.0}\",\"('Cu', 'O', 'Rb')\",OTHERS,False\nmp-601846,\"{'Yb': 2.0, 'In': 8.0, 'Ir': 1.0}\",\"('In', 'Ir', 'Yb')\",OTHERS,False\nmp-558775,\"{'Al': 6.0, 'Pb': 10.0, 'F': 38.0}\",\"('Al', 'F', 'Pb')\",OTHERS,False\nmp-972924,\"{'La': 1.0, 'Mg': 16.0, 'Al': 12.0}\",\"('Al', 'La', 'Mg')\",OTHERS,False\nmp-1176372,\"{'Na': 6.0, 'Mn': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Mn', 'Na', 'O', 'P')\",OTHERS,False\nmp-557463,\"{'Na': 12.0, 'Sc': 4.0, 'Si': 8.0, 'O': 28.0}\",\"('Na', 'O', 'Sc', 'Si')\",OTHERS,False\nmp-1094255,\"{'Zr': 6.0, 'Sn': 2.0}\",\"('Sn', 'Zr')\",OTHERS,False\nmp-865439,\"{'Th': 6.0, 'O': 4.0}\",\"('O', 'Th')\",OTHERS,False\nmp-1178904,\"{'V': 4.0, 'Cu': 2.0, 'P': 4.0, 'O': 30.0}\",\"('Cu', 'O', 'P', 'V')\",OTHERS,False\nmp-9351,\"{'Ge': 2.0, 'Lu': 2.0, 'Au': 2.0}\",\"('Au', 'Ge', 'Lu')\",OTHERS,False\nmp-565679,\"{'Hg': 16.0, 'Se': 16.0, 'O': 36.0}\",\"('Hg', 'O', 'Se')\",OTHERS,False\nmp-1187402,\"{'Th': 1.0, 'Al': 1.0, 'Cu': 2.0}\",\"('Al', 'Cu', 'Th')\",OTHERS,False\nmp-14017,\"{'K': 6.0, 'Sb': 2.0}\",\"('K', 'Sb')\",OTHERS,False\nmp-758528,\"{'Li': 6.0, 'Mn': 10.0, 'O': 4.0, 'F': 18.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-778474,\"{'Li': 12.0, 'Co': 4.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Co', 'Li', 'O')\",OTHERS,False\nmp-1179605,{'Sb': 2.0},\"('Sb',)\",OTHERS,False\nmp-29973,\"{'N': 4.0, 'Sr': 4.0}\",\"('N', 'Sr')\",OTHERS,False\nmp-1024968,\"{'Pu': 1.0, 'B': 2.0, 'Rh': 3.0}\",\"('B', 'Pu', 'Rh')\",OTHERS,False\nmp-8613,\"{'P': 2.0, 'S': 6.0, 'Mn': 2.0}\",\"('Mn', 'P', 'S')\",OTHERS,False\nmp-974364,\"{'Ru': 1.0, 'Au': 3.0}\",\"('Au', 'Ru')\",OTHERS,False\nmp-775876,\"{'Na': 2.0, 'Li': 2.0, 'Mn': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'Mn', 'Na', 'O', 'P')\",OTHERS,False\nmvc-15619,\"{'Mg': 4.0, 'Co': 2.0, 'Sb': 2.0, 'O': 12.0}\",\"('Co', 'Mg', 'O', 'Sb')\",OTHERS,False\nmp-1104601,\"{'Co': 1.0, 'N': 2.0, 'O': 10.0}\",\"('Co', 'N', 'O')\",OTHERS,False\nmp-673798,\"{'K': 6.0, 'Cl': 2.0, 'O': 2.0}\",\"('Cl', 'K', 'O')\",OTHERS,False\nmp-1095641,\"{'Tb': 5.0, 'S': 7.0}\",\"('S', 'Tb')\",OTHERS,False\nmp-1209090,\"{'Rb': 2.0, 'Tm': 2.0, 'Be': 2.0, 'F': 12.0}\",\"('Be', 'F', 'Rb', 'Tm')\",OTHERS,False\nmp-9721,\"{'O': 1.0, 'Ca': 3.0, 'Ge': 1.0}\",\"('Ca', 'Ge', 'O')\",OTHERS,False\nmp-32509,\"{'V': 2.0, 'P': 8.0, 'O': 24.0}\",\"('O', 'P', 'V')\",OTHERS,False\nmp-1070152,\"{'Ca': 1.0, 'Co': 2.0, 'Si': 2.0}\",\"('Ca', 'Co', 'Si')\",OTHERS,False\nmp-22588,\"{'O': 12.0, 'Fe': 4.0, 'Lu': 4.0}\",\"('Fe', 'Lu', 'O')\",OTHERS,False\nmp-1227199,\"{'Ca': 1.0, 'Pr': 3.0, 'Co': 4.0, 'O': 12.0}\",\"('Ca', 'Co', 'O', 'Pr')\",OTHERS,False\nmp-1187114,\"{'Sr': 3.0, 'Cr': 1.0}\",\"('Cr', 'Sr')\",OTHERS,False\nmp-1073927,\"{'Mg': 12.0, 'Si': 10.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1246426,\"{'Ge': 4.0, 'C': 4.0, 'N': 8.0}\",\"('C', 'Ge', 'N')\",OTHERS,False\nmp-6652,\"{'B': 6.0, 'O': 18.0, 'K': 2.0, 'Zn': 8.0}\",\"('B', 'K', 'O', 'Zn')\",OTHERS,False\nmp-867782,\"{'Mn': 2.0, 'O': 2.0, 'F': 2.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-14214,\"{'Si': 8.0, 'P': 32.0, 'Ba': 32.0}\",\"('Ba', 'P', 'Si')\",OTHERS,False\nmp-850284,\"{'Li': 4.0, 'Co': 2.0, 'O': 2.0, 'F': 6.0}\",\"('Co', 'F', 'Li', 'O')\",OTHERS,False\nmp-697264,\"{'Cd': 4.0, 'H': 8.0, 'Se': 4.0, 'O': 16.0}\",\"('Cd', 'H', 'O', 'Se')\",OTHERS,False\nmp-1188370,\"{'La': 6.0, 'Sn': 10.0}\",\"('La', 'Sn')\",OTHERS,False\nmp-1031330,\"{'K': 1.0, 'La': 1.0, 'Mg': 6.0, 'O': 8.0}\",\"('K', 'La', 'Mg', 'O')\",OTHERS,False\nmp-21974,\"{'O': 48.0, 'Fe': 20.0, 'Dy': 12.0}\",\"('Dy', 'Fe', 'O')\",OTHERS,False\nmp-1176791,\"{'Li': 18.0, 'Mn': 2.0, 'Si': 4.0, 'O': 20.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-705429,\"{'Li': 12.0, 'Co': 10.0, 'P': 16.0, 'O': 56.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,False\nmp-1214619,\"{'C': 40.0, 'Cl': 36.0, 'O': 2.0}\",\"('C', 'Cl', 'O')\",OTHERS,False\nmp-1105966,\"{'Gd': 8.0, 'Te': 12.0}\",\"('Gd', 'Te')\",OTHERS,False\nmp-1173997,\"{'Li': 5.0, 'Mn': 1.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-28473,\"{'C': 2.0, 'F': 6.0, 'Cl': 2.0}\",\"('C', 'Cl', 'F')\",OTHERS,False\nmp-1203464,\"{'Bi': 8.0, 'As': 4.0, 'O': 24.0}\",\"('As', 'Bi', 'O')\",OTHERS,False\nmp-1192255,\"{'Sm': 2.0, 'Mn': 3.0, 'Sb': 4.0, 'S': 12.0}\",\"('Mn', 'S', 'Sb', 'Sm')\",OTHERS,False\nmp-5391,\"{'O': 16.0, 'Mg': 8.0, 'Si': 4.0}\",\"('Mg', 'O', 'Si')\",OTHERS,False\nmp-1213756,\"{'Cr': 7.0, 'Te': 8.0}\",\"('Cr', 'Te')\",OTHERS,False\nmp-756866,\"{'Li': 2.0, 'Ti': 1.0, 'Mn': 3.0, 'O': 8.0}\",\"('Li', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-1224328,\"{'Hf': 1.0, 'Nb': 1.0, 'B': 4.0}\",\"('B', 'Hf', 'Nb')\",OTHERS,False\nmp-1205810,\"{'Eu': 2.0, 'Br': 6.0}\",\"('Br', 'Eu')\",OTHERS,False\nmp-1111564,\"{'Li': 2.0, 'Al': 1.0, 'Ag': 1.0, 'F': 6.0}\",\"('Ag', 'Al', 'F', 'Li')\",OTHERS,False\nmp-1210883,\"{'Nd': 28.0, 'V': 8.0, 'B': 4.0, 'O': 68.0}\",\"('B', 'Nd', 'O', 'V')\",OTHERS,False\nmp-1211154,\"{'Na': 6.0, 'Ca': 8.0, 'Ti': 2.0, 'Si': 8.0, 'O': 32.0, 'F': 4.0}\",\"('Ca', 'F', 'Na', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-1206671,\"{'Lu': 2.0, 'Se': 2.0, 'I': 2.0}\",\"('I', 'Lu', 'Se')\",OTHERS,False\nmp-780706,\"{'Li': 2.0, 'Mn': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1183219,\"{'Ba': 2.0, 'Mg': 1.0, 'Tl': 1.0}\",\"('Ba', 'Mg', 'Tl')\",OTHERS,False\nmp-5479,\"{'F': 4.0, 'Al': 1.0, 'Rb': 1.0}\",\"('Al', 'F', 'Rb')\",OTHERS,False\nmp-568808,\"{'Tb': 6.0, 'Se': 8.0}\",\"('Se', 'Tb')\",OTHERS,False\nmp-1183933,\"{'Cs': 1.0, 'Np': 1.0, 'O': 3.0}\",\"('Cs', 'Np', 'O')\",OTHERS,False\nmp-1033732,\"{'Mg': 14.0, 'B': 1.0, 'Sb': 1.0, 'O': 16.0}\",\"('B', 'Mg', 'O', 'Sb')\",OTHERS,False\nmp-705432,\"{'Li': 12.0, 'Ni': 10.0, 'P': 16.0, 'O': 56.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-975933,\"{'Nd': 1.0, 'Ho': 1.0, 'In': 2.0}\",\"('Ho', 'In', 'Nd')\",OTHERS,False\nmp-1198649,\"{'K': 9.0, 'Y': 3.0, 'Si': 12.0, 'O': 32.0, 'F': 2.0}\",\"('F', 'K', 'O', 'Si', 'Y')\",OTHERS,False\nmp-1176194,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-642649,\"{'Ba': 2.0, 'H': 4.0, 'O': 6.0}\",\"('Ba', 'H', 'O')\",OTHERS,False\nmp-1215921,\"{'Y': 1.0, 'Ho': 1.0, 'C': 4.0}\",\"('C', 'Ho', 'Y')\",OTHERS,False\nmp-754057,\"{'Li': 4.0, 'Fe': 2.0, 'Cu': 3.0, 'Sb': 3.0, 'O': 16.0}\",\"('Cu', 'Fe', 'Li', 'O', 'Sb')\",OTHERS,False\nmp-779706,\"{'Ag': 4.0, 'Ge': 4.0, 'O': 12.0}\",\"('Ag', 'Ge', 'O')\",OTHERS,False\nmp-1178561,\"{'Ag': 1.0, 'Cl': 1.0, 'O': 3.0}\",\"('Ag', 'Cl', 'O')\",OTHERS,False\nmp-571467,\"{'Cs': 2.0, 'Na': 1.0, 'Y': 1.0, 'Br': 6.0}\",\"('Br', 'Cs', 'Na', 'Y')\",OTHERS,False\nmp-1220708,\"{'Na': 1.0, 'Ho': 1.0, 'F': 4.0}\",\"('F', 'Ho', 'Na')\",OTHERS,False\nmp-23280,\"{'Cl': 12.0, 'As': 4.0}\",\"('As', 'Cl')\",OTHERS,False\nmp-1028947,\"{'Mo': 1.0, 'W': 3.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-753719,\"{'Sr': 1.0, 'Li': 1.0, 'Nb': 2.0, 'O': 6.0, 'F': 1.0}\",\"('F', 'Li', 'Nb', 'O', 'Sr')\",OTHERS,False\nmp-985297,\"{'Ag': 3.0, 'Rh': 1.0}\",\"('Ag', 'Rh')\",OTHERS,False\nmp-757169,\"{'Li': 4.0, 'Mn': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1211819,\"{'K': 6.0, 'Hf': 8.0, 'Ag': 4.0, 'F': 46.0}\",\"('Ag', 'F', 'Hf', 'K')\",OTHERS,False\nmp-25823,\"{'Li': 2.0, 'Ni': 4.0, 'P': 10.0, 'O': 30.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-542132,\"{'Yb': 2.0, 'As': 4.0, 'Cu': 2.0}\",\"('As', 'Cu', 'Yb')\",OTHERS,False\nmp-849955,\"{'Li': 9.0, 'Mn': 15.0, 'Fe': 6.0, 'O': 36.0}\",\"('Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-7151,\"{'Cu': 2.0, 'Se': 6.0, 'Cs': 2.0, 'U': 2.0}\",\"('Cs', 'Cu', 'Se', 'U')\",OTHERS,False\nmp-20269,\"{'Mn': 1.0, 'Ga': 1.0, 'Pt': 1.0}\",\"('Ga', 'Mn', 'Pt')\",OTHERS,False\nmp-1095694,\"{'Ag': 8.0, 'S': 4.0}\",\"('Ag', 'S')\",OTHERS,False\nmp-1177438,\"{'Li': 4.0, 'Mn': 2.0, 'Cr': 3.0, 'Co': 3.0, 'O': 16.0}\",\"('Co', 'Cr', 'Li', 'Mn', 'O')\",OTHERS,False\nmvc-671,\"{'W': 3.0, 'O': 8.0}\",\"('O', 'W')\",OTHERS,False\nmp-1478,\"{'Cu': 8.0, 'O': 6.0}\",\"('Cu', 'O')\",OTHERS,False\nmp-1183679,\"{'Cr': 1.0, 'H': 3.0}\",\"('Cr', 'H')\",OTHERS,False\nmp-601396,\"{'Cu': 4.0, 'H': 40.0, 'C': 8.0, 'N': 16.0, 'O': 40.0}\",\"('C', 'Cu', 'H', 'N', 'O')\",OTHERS,False\nmp-1187595,\"{'Yb': 1.0, 'Ni': 1.0, 'O': 3.0}\",\"('Ni', 'O', 'Yb')\",OTHERS,False\nmp-1179005,\"{'V': 4.0, 'Re': 4.0, 'O': 22.0}\",\"('O', 'Re', 'V')\",OTHERS,False\nmp-1196075,\"{'Si': 20.0, 'H': 114.0, 'C': 38.0}\",\"('C', 'H', 'Si')\",OTHERS,False\nmp-556377,\"{'Ba': 17.0, 'Dy': 16.0, 'Zn': 8.0, 'Pt': 4.0, 'O': 57.0}\",\"('Ba', 'Dy', 'O', 'Pt', 'Zn')\",OTHERS,False\nmp-3787,\"{'S': 6.0, 'Fe': 4.0, 'Rb': 2.0}\",\"('Fe', 'Rb', 'S')\",OTHERS,False\nmp-1247046,\"{'Fe': 1.0, 'Co': 10.0, 'N': 8.0}\",\"('Co', 'Fe', 'N')\",OTHERS,False\nmp-1211487,\"{'K': 8.0, 'Yb': 4.0, 'F': 20.0}\",\"('F', 'K', 'Yb')\",OTHERS,False\nmp-1196069,\"{'Nd': 12.0, 'Al': 86.0, 'W': 8.0}\",\"('Al', 'Nd', 'W')\",OTHERS,False\nmp-1224629,\"{'Gd': 2.0, 'Fe': 4.0, 'Bi': 2.0, 'O': 12.0}\",\"('Bi', 'Fe', 'Gd', 'O')\",OTHERS,False\nmp-975812,\"{'Pr': 1.0, 'Sm': 3.0}\",\"('Pr', 'Sm')\",OTHERS,False\nmp-1183972,\"{'Cs': 1.0, 'Sr': 1.0, 'O': 3.0}\",\"('Cs', 'O', 'Sr')\",OTHERS,False\nmp-10106,\"{'Ca': 4.0, 'As': 2.0}\",\"('As', 'Ca')\",OTHERS,False\nmp-1218394,\"{'Sr': 3.0, 'Be': 2.0, 'B': 5.0, 'H': 1.0, 'O': 13.0}\",\"('B', 'Be', 'H', 'O', 'Sr')\",OTHERS,False\nmp-1214083,\"{'Ca': 12.0, 'Si': 4.0, 'O': 16.0, 'F': 4.0}\",\"('Ca', 'F', 'O', 'Si')\",OTHERS,False\nmp-567939,\"{'Cs': 1.0, 'Sm': 1.0, 'Cl': 3.0}\",\"('Cl', 'Cs', 'Sm')\",OTHERS,False\nmp-1245720,\"{'Zn': 1.0, 'Pb': 2.0, 'N': 2.0}\",\"('N', 'Pb', 'Zn')\",OTHERS,False\nmp-1225560,\"{'Er': 2.0, 'O': 3.0}\",\"('Er', 'O')\",OTHERS,False\nmp-773502,\"{'K': 2.0, 'Co': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Co', 'K', 'O', 'P')\",OTHERS,False\nmp-1094985,\"{'Mg': 8.0, 'Cd': 4.0}\",\"('Cd', 'Mg')\",OTHERS,False\nmp-1095452,\"{'U': 3.0, 'Fe': 2.0, 'Ge': 7.0}\",\"('Fe', 'Ge', 'U')\",OTHERS,False\nmp-1183556,\"{'Ca': 1.0, 'Y': 1.0, 'Cd': 2.0}\",\"('Ca', 'Cd', 'Y')\",OTHERS,False\nmp-30216,\"{'K': 4.0, 'I': 12.0, 'Re': 2.0}\",\"('I', 'K', 'Re')\",OTHERS,False\nmp-1210455,\"{'Na': 3.0, 'La': 1.0, 'As': 2.0, 'O': 8.0}\",\"('As', 'La', 'Na', 'O')\",OTHERS,False\nmp-1186570,\"{'Pr': 1.0, 'Dy': 1.0, 'In': 2.0}\",\"('Dy', 'In', 'Pr')\",OTHERS,False\nmp-755576,\"{'Zr': 8.0, 'N': 8.0, 'O': 4.0}\",\"('N', 'O', 'Zr')\",OTHERS,False\nmp-1226984,\"{'La': 20.0, 'Ga': 6.0, 'Co': 14.0}\",\"('Co', 'Ga', 'La')\",OTHERS,False\nmp-1018740,\"{'La': 2.0, 'Co': 2.0, 'Si': 2.0}\",\"('Co', 'La', 'Si')\",OTHERS,False\nmp-1005761,\"{'Sm': 2.0, 'Gd': 6.0}\",\"('Gd', 'Sm')\",OTHERS,False\nmp-1186674,\"{'Pm': 1.0, 'Zn': 2.0, 'Hg': 1.0}\",\"('Hg', 'Pm', 'Zn')\",OTHERS,False\nmp-162,{'Yb': 1.0},\"('Yb',)\",OTHERS,False\nmp-1191851,\"{'Yb': 6.0, 'Si': 4.0, 'Ni': 12.0}\",\"('Ni', 'Si', 'Yb')\",OTHERS,False\nmp-977446,\"{'Nd': 2.0, 'V': 2.0, 'Ge': 6.0}\",\"('Ge', 'Nd', 'V')\",OTHERS,False\nmp-1207829,\"{'Yb': 12.0, 'Mn': 8.0, 'Al': 86.0}\",\"('Al', 'Mn', 'Yb')\",OTHERS,False\nmp-1207780,\"{'Y': 12.0, 'Rh': 4.0}\",\"('Rh', 'Y')\",OTHERS,False\nmp-770370,\"{'V': 12.0, 'B': 4.0, 'O': 24.0}\",\"('B', 'O', 'V')\",OTHERS,False\nmp-1217198,\"{'V': 4.0, 'Cd': 4.0, 'Ni': 4.0, 'P': 8.0, 'O': 52.0}\",\"('Cd', 'Ni', 'O', 'P', 'V')\",OTHERS,False\nmp-565711,\"{'P': 24.0, 'O': 24.0, 'F': 36.0}\",\"('F', 'O', 'P')\",OTHERS,False\nmp-1099622,\"{'K': 5.0, 'Na': 3.0, 'Nb': 7.0, 'W': 1.0, 'O': 24.0}\",\"('K', 'Na', 'Nb', 'O', 'W')\",OTHERS,False\nmp-1177697,\"{'Li': 3.0, 'Cu': 4.0, 'Sb': 1.0, 'O': 8.0}\",\"('Cu', 'Li', 'O', 'Sb')\",OTHERS,False\nmp-1246934,\"{'Mg': 2.0, 'Ti': 3.0, 'Ni': 1.0, 'S': 8.0}\",\"('Mg', 'Ni', 'S', 'Ti')\",OTHERS,False\nmp-1178865,\"{'W': 4.0, 'O': 20.0}\",\"('O', 'W')\",OTHERS,False\nmp-1195268,\"{'Co': 8.0, 'Bi': 16.0, 'S': 8.0, 'O': 56.0}\",\"('Bi', 'Co', 'O', 'S')\",OTHERS,False\nmp-685478,\"{'Na': 32.0, 'Pd': 16.0, 'O': 48.0}\",\"('Na', 'O', 'Pd')\",OTHERS,False\nmp-28238,\"{'Se': 44.0, 'Sb': 16.0, 'Ba': 16.0}\",\"('Ba', 'Sb', 'Se')\",OTHERS,False\nmp-780897,\"{'Li': 4.0, 'Mn': 4.0, 'P': 8.0, 'H': 12.0, 'O': 34.0}\",\"('H', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-557295,\"{'V': 8.0, 'Se': 16.0, 'O': 48.0}\",\"('O', 'Se', 'V')\",OTHERS,False\nmp-29357,\"{'C': 2.0, 'Cl': 28.0, 'Zr': 12.0}\",\"('C', 'Cl', 'Zr')\",OTHERS,False\nmp-1205990,\"{'Nb': 1.0, 'N': 2.0, 'Cl': 6.0}\",\"('Cl', 'N', 'Nb')\",OTHERS,False\nmp-1185618,\"{'Mg': 1.0, 'V': 1.0, 'Rh': 2.0}\",\"('Mg', 'Rh', 'V')\",OTHERS,False\nmp-973926,\"{'K': 2.0, 'Co': 2.0, 'H': 6.0, 'C': 6.0, 'O': 12.0}\",\"('C', 'Co', 'H', 'K', 'O')\",OTHERS,False\nmp-1091374,\"{'Nb': 2.0, 'Cr': 2.0, 'N': 4.0}\",\"('Cr', 'N', 'Nb')\",OTHERS,False\nmp-18190,\"{'O': 12.0, 'Ca': 1.0, 'Cu': 3.0, 'Sn': 4.0}\",\"('Ca', 'Cu', 'O', 'Sn')\",OTHERS,False\nmp-697873,\"{'Sn': 4.0, 'H': 4.0, 'C': 8.0, 'O': 12.0}\",\"('C', 'H', 'O', 'Sn')\",OTHERS,False\nmp-13456,\"{'S': 5.0, 'Zn': 5.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-3654,\"{'F': 3.0, 'Ca': 1.0, 'Rb': 1.0}\",\"('Ca', 'F', 'Rb')\",OTHERS,False\nmp-1101241,\"{'V': 14.0, 'Fe': 5.0, 'O': 32.0}\",\"('Fe', 'O', 'V')\",OTHERS,False\nmp-1176633,\"{'Li': 8.0, 'Ni': 8.0, 'P': 8.0, 'O': 32.0, 'F': 8.0}\",\"('F', 'Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-7935,\"{'Sb': 2.0, 'Te': 2.0, 'U': 2.0}\",\"('Sb', 'Te', 'U')\",OTHERS,False\nmp-23408,\"{'S': 20.0, 'Tl': 16.0, 'Bi': 8.0}\",\"('Bi', 'S', 'Tl')\",OTHERS,False\nmp-977358,\"{'Ho': 2.0, 'Ag': 1.0, 'Ir': 1.0}\",\"('Ag', 'Ho', 'Ir')\",OTHERS,False\nmp-31084,\"{'Zr': 12.0, 'Ge': 24.0, 'Rh': 12.0}\",\"('Ge', 'Rh', 'Zr')\",OTHERS,False\nmp-766402,\"{'Li': 8.0, 'V': 4.0, 'Si': 12.0, 'O': 32.0}\",\"('Li', 'O', 'Si', 'V')\",OTHERS,False\nmp-556291,\"{'Ba': 12.0, 'Sn': 8.0, 'S': 28.0}\",\"('Ba', 'S', 'Sn')\",OTHERS,False\nmp-1099087,\"{'Mg': 14.0, 'Co': 1.0, 'Sn': 1.0}\",\"('Co', 'Mg', 'Sn')\",OTHERS,False\nmp-555891,\"{'Si': 4.0, 'O': 8.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1207733,\"{'Y': 4.0, 'Cr': 4.0, 'Ge': 4.0, 'O': 20.0}\",\"('Cr', 'Ge', 'O', 'Y')\",OTHERS,False\nmp-1039117,\"{'Ca': 1.0, 'Mg': 3.0}\",\"('Ca', 'Mg')\",OTHERS,False\nmp-505212,\"{'Cs': 6.0, 'Au': 2.0, 'O': 2.0}\",\"('Au', 'Cs', 'O')\",OTHERS,False\nmp-2976,\"{'B': 1.0, 'Pd': 3.0, 'Pr': 1.0}\",\"('B', 'Pd', 'Pr')\",OTHERS,False\nmp-765596,\"{'Li': 4.0, 'V': 8.0, 'O': 20.0, 'F': 4.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-1112603,\"{'Cs': 2.0, 'Hg': 1.0, 'As': 1.0, 'F': 6.0}\",\"('As', 'Cs', 'F', 'Hg')\",OTHERS,False\nmp-643743,\"{'Cu': 4.0, 'H': 4.0, 'Cl': 4.0, 'O': 4.0}\",\"('Cl', 'Cu', 'H', 'O')\",OTHERS,False\nmp-1197511,\"{'Ti': 18.0, 'Mn': 4.0, 'B': 16.0, 'Ru': 36.0}\",\"('B', 'Mn', 'Ru', 'Ti')\",OTHERS,False\nmp-1197271,\"{'Eu': 4.0, 'V': 8.0, 'I': 4.0, 'O': 36.0}\",\"('Eu', 'I', 'O', 'V')\",OTHERS,False\nmp-557784,\"{'La': 4.0, 'Nb': 4.0, 'Te': 4.0, 'O': 24.0}\",\"('La', 'Nb', 'O', 'Te')\",OTHERS,False\nmp-1203752,\"{'Tb': 4.0, 'Fe': 20.0, 'P': 12.0}\",\"('Fe', 'P', 'Tb')\",OTHERS,False\nmp-1244920,\"{'V': 30.0, 'O': 75.0}\",\"('O', 'V')\",OTHERS,False\nmp-1197808,\"{'Ca': 4.0, 'Sn': 4.0, 'O': 24.0}\",\"('Ca', 'O', 'Sn')\",OTHERS,False\nmp-769159,\"{'Li': 4.0, 'Cu': 4.0, 'P': 4.0, 'H': 8.0, 'O': 20.0}\",\"('Cu', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-556638,\"{'K': 4.0, 'Th': 2.0, 'Mo': 6.0, 'O': 24.0}\",\"('K', 'Mo', 'O', 'Th')\",OTHERS,False\nmp-1195226,\"{'Pb': 8.0, 'Br': 6.0, 'N': 2.0, 'O': 32.0}\",\"('Br', 'N', 'O', 'Pb')\",OTHERS,False\nmp-1919,\"{'Cr': 8.0, 'Zr': 4.0}\",\"('Cr', 'Zr')\",OTHERS,False\nmp-774106,\"{'Li': 6.0, 'Fe': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-759331,\"{'Fe': 18.0, 'O': 18.0, 'F': 18.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1176549,\"{'Li': 1.0, 'V': 3.0, 'O': 6.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1016825,\"{'Hf': 1.0, 'Mg': 1.0, 'O': 3.0}\",\"('Hf', 'Mg', 'O')\",OTHERS,False\nmp-30304,\"{'O': 14.0, 'Sb': 2.0, 'Bi': 6.0}\",\"('Bi', 'O', 'Sb')\",OTHERS,False\nmp-753099,\"{'Li': 3.0, 'Co': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1197179,\"{'Er': 22.0, 'In': 12.0, 'Ge': 8.0}\",\"('Er', 'Ge', 'In')\",OTHERS,False\nmp-1223689,\"{'K': 2.0, 'Cd': 3.0, 'Sn': 1.0, 'As': 4.0}\",\"('As', 'Cd', 'K', 'Sn')\",OTHERS,False\nmp-766530,\"{'Li': 4.0, 'Fe': 4.0, 'Si': 6.0, 'O': 20.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1251718,\"{'Ba': 8.0, 'Al': 16.0, 'O': 48.0}\",\"('Al', 'Ba', 'O')\",OTHERS,False\nmp-1197754,\"{'Np': 2.0, 'U': 2.0, 'P': 8.0, 'H': 8.0, 'C': 4.0, 'O': 32.0}\",\"('C', 'H', 'Np', 'O', 'P', 'U')\",OTHERS,False\nmp-1080076,\"{'Sr': 2.0, 'N': 1.0, 'O': 6.0}\",\"('N', 'O', 'Sr')\",OTHERS,False\nmp-1176923,\"{'Li': 12.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-505401,\"{'K': 4.0, 'Mn': 4.0, 'F': 16.0, 'O': 4.0, 'H': 8.0}\",\"('F', 'H', 'K', 'Mn', 'O')\",OTHERS,False\nmp-1221649,\"{'Mn': 1.0, 'Co': 1.0, 'Ni': 1.0, 'Sn': 1.0}\",\"('Co', 'Mn', 'Ni', 'Sn')\",OTHERS,False\nmp-1252068,\"{'K': 2.0, 'Al': 22.0, 'O': 34.0}\",\"('Al', 'K', 'O')\",OTHERS,False\nmp-1213734,\"{'Cs': 6.0, 'Nb': 12.0, 'S': 2.0, 'Br': 34.0}\",\"('Br', 'Cs', 'Nb', 'S')\",OTHERS,False\nmvc-7738,\"{'Ca': 4.0, 'Bi': 6.0, 'O': 16.0}\",\"('Bi', 'Ca', 'O')\",OTHERS,False\nmp-11131,\"{'S': 8.0, 'K': 2.0, 'Ge': 2.0, 'Hg': 3.0}\",\"('Ge', 'Hg', 'K', 'S')\",OTHERS,False\nmp-25259,\"{'O': 20.0, 'Fe': 2.0, 'Se': 8.0}\",\"('Fe', 'O', 'Se')\",OTHERS,False\nmp-1095161,\"{'Sm': 2.0, 'Mn': 2.0, 'Ge': 4.0}\",\"('Ge', 'Mn', 'Sm')\",OTHERS,False\nmp-1025575,\"{'Mo': 1.0, 'W': 2.0, 'Se': 6.0}\",\"('Mo', 'Se', 'W')\",OTHERS,False\nmp-685267,\"{'Cr': 36.0, 'Ga': 12.0, 'S': 72.0}\",\"('Cr', 'Ga', 'S')\",OTHERS,False\nmp-610787,\"{'Gd': 1.0, 'Cr': 2.0, 'Si': 2.0}\",\"('Cr', 'Gd', 'Si')\",OTHERS,False\nmp-752911,\"{'Li': 4.0, 'V': 4.0, 'F': 12.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1220519,\"{'Nb': 4.0, 'N': 3.0}\",\"('N', 'Nb')\",OTHERS,False\nmp-1180517,\"{'Mg': 1.0, 'S': 1.0, 'O': 9.0}\",\"('Mg', 'O', 'S')\",OTHERS,False\nmp-778,\"{'P': 3.0, 'Fe': 6.0}\",\"('Fe', 'P')\",OTHERS,False\nmp-1074528,\"{'Mg': 16.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1039344,\"{'Sn': 6.0, 'Bi': 2.0}\",\"('Bi', 'Sn')\",OTHERS,False\nmp-766465,\"{'Sr': 8.0, 'Mn': 4.0, 'C': 4.0, 'O': 12.0, 'F': 20.0}\",\"('C', 'F', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1215189,\"{'Zr': 1.0, 'Ti': 1.0, 'S': 4.0}\",\"('S', 'Ti', 'Zr')\",OTHERS,False\nmp-1223667,\"{'K': 2.0, 'Ba': 1.0, 'Sn': 1.0, 'Te': 4.0}\",\"('Ba', 'K', 'Sn', 'Te')\",OTHERS,False\nmp-1197995,\"{'Na': 4.0, 'Mg': 2.0, 'P': 8.0, 'H': 24.0, 'O': 36.0}\",\"('H', 'Mg', 'Na', 'O', 'P')\",OTHERS,False\nmp-1206770,\"{'Np': 1.0, 'Ga': 5.0, 'Rh': 1.0}\",\"('Ga', 'Np', 'Rh')\",OTHERS,False\nmp-1080154,\"{'Te': 2.0, 'Mo': 3.0, 'W': 1.0, 'Se': 4.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-28702,\"{'Gd': 2.0, 'B': 3.0, 'C': 2.0}\",\"('B', 'C', 'Gd')\",OTHERS,False\nmp-9457,\"{'O': 12.0, 'Ca': 6.0, 'Re': 2.0}\",\"('Ca', 'O', 'Re')\",OTHERS,False\nmp-1218722,\"{'Sr': 2.0, 'Pr': 2.0, 'Cr': 1.0, 'Ni': 1.0, 'O': 8.0}\",\"('Cr', 'Ni', 'O', 'Pr', 'Sr')\",OTHERS,False\nmp-568621,\"{'Mg': 16.0, 'B': 2.0, 'Rh': 8.0}\",\"('B', 'Mg', 'Rh')\",OTHERS,False\nmp-1099088,\"{'K': 1.0, 'Mg': 14.0, 'Co': 1.0}\",\"('Co', 'K', 'Mg')\",OTHERS,False\nmp-1019808,\"{'K': 6.0, 'Be': 12.0, 'B': 18.0, 'O': 42.0}\",\"('B', 'Be', 'K', 'O')\",OTHERS,False\nmp-675710,\"{'K': 4.0, 'U': 4.0, 'O': 14.0}\",\"('K', 'O', 'U')\",OTHERS,False\nmp-1190482,\"{'Mn': 4.0, 'N': 4.0, 'Cl': 12.0}\",\"('Cl', 'Mn', 'N')\",OTHERS,False\nmp-560812,\"{'K': 2.0, 'U': 4.0, 'P': 6.0, 'O': 24.0}\",\"('K', 'O', 'P', 'U')\",OTHERS,False\nmp-1246012,\"{'Ni': 2.0, 'C': 12.0, 'N': 18.0}\",\"('C', 'N', 'Ni')\",OTHERS,False\nmp-1227951,\"{'Ba': 1.0, 'La': 1.0, 'Co': 2.0, 'O': 6.0}\",\"('Ba', 'Co', 'La', 'O')\",OTHERS,False\nmp-22188,\"{'Cu': 2.0, 'Sn': 2.0, 'Dy': 2.0}\",\"('Cu', 'Dy', 'Sn')\",OTHERS,False\nmp-1221057,\"{'Na': 2.0, 'Eu': 2.0, 'Ti': 2.0, 'Nb': 2.0, 'O': 12.0, 'F': 2.0}\",\"('Eu', 'F', 'Na', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-865524,\"{'Y': 1.0, 'Cd': 1.0, 'Pt': 2.0}\",\"('Cd', 'Pt', 'Y')\",OTHERS,False\nmp-5746,\"{'O': 20.0, 'Mg': 4.0, 'Te': 8.0}\",\"('Mg', 'O', 'Te')\",OTHERS,False\nmp-17388,\"{'Cu': 6.0, 'Sn': 5.0, 'Yb': 3.0}\",\"('Cu', 'Sn', 'Yb')\",OTHERS,False\nmp-781626,\"{'Li': 4.0, 'Nb': 2.0, 'O': 6.0}\",\"('Li', 'Nb', 'O')\",OTHERS,False\nmp-26742,\"{'O': 24.0, 'P': 6.0, 'Cu': 8.0}\",\"('Cu', 'O', 'P')\",OTHERS,False\nmp-1078838,\"{'Ti': 2.0, 'Fe': 2.0, 'H': 4.0}\",\"('Fe', 'H', 'Ti')\",OTHERS,False\nmp-568791,\"{'Ca': 3.0, 'Si': 1.0, 'Br': 2.0}\",\"('Br', 'Ca', 'Si')\",OTHERS,False\nmp-865406,\"{'Lu': 2.0, 'Zn': 1.0, 'Au': 1.0}\",\"('Au', 'Lu', 'Zn')\",OTHERS,False\nmp-776483,\"{'Li': 8.0, 'Mn': 4.0, 'P': 4.0, 'O': 16.0, 'F': 4.0}\",\"('F', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-622508,\"{'Gd': 1.0, 'Si': 2.0, 'Rh': 3.0}\",\"('Gd', 'Rh', 'Si')\",OTHERS,False\nmp-1028539,\"{'Te': 4.0, 'Mo': 2.0, 'W': 2.0, 'Se': 4.0}\",\"('Mo', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1223170,\"{'La': 2.0, 'Ti': 3.0, 'Ni': 1.0, 'O': 10.0}\",\"('La', 'Ni', 'O', 'Ti')\",OTHERS,False\nmp-769557,\"{'Li': 2.0, 'Mn': 2.0, 'Nb': 2.0, 'O': 8.0}\",\"('Li', 'Mn', 'Nb', 'O')\",OTHERS,False\nmp-1226264,\"{'Cr': 4.0, 'Ga': 1.0, 'S': 8.0}\",\"('Cr', 'Ga', 'S')\",OTHERS,False\nmp-1204207,\"{'Nb': 30.0, 'Ge': 21.0}\",\"('Ge', 'Nb')\",OTHERS,False\nmp-1247458,\"{'Sr': 24.0, 'Pb': 3.0, 'N': 18.0}\",\"('N', 'Pb', 'Sr')\",OTHERS,False\nmp-757855,\"{'V': 8.0, 'Co': 4.0, 'H': 16.0, 'O': 32.0}\",\"('Co', 'H', 'O', 'V')\",OTHERS,False\nmp-1080793,\"{'Pu': 2.0, 'Te': 6.0}\",\"('Pu', 'Te')\",OTHERS,False\nmp-1179633,\"{'S': 4.0, 'N': 2.0, 'O': 18.0}\",\"('N', 'O', 'S')\",OTHERS,False\nmp-768954,\"{'Ba': 8.0, 'Y': 4.0, 'Cl': 28.0}\",\"('Ba', 'Cl', 'Y')\",OTHERS,False\nmp-1023124,\"{'Co': 2.0, 'Mo': 1.0, 'S': 4.0}\",\"('Co', 'Mo', 'S')\",OTHERS,False\nmp-29646,\"{'As': 8.0, 'Hf': 4.0}\",\"('As', 'Hf')\",OTHERS,False\nmp-654301,\"{'Nb': 10.0, 'P': 14.0, 'O': 60.0}\",\"('Nb', 'O', 'P')\",OTHERS,False\nmp-754116,\"{'Ba': 2.0, 'Y': 4.0, 'Br': 16.0}\",\"('Ba', 'Br', 'Y')\",OTHERS,False\nmp-1093757,\"{'Zr': 1.0, 'Ti': 1.0, 'Au': 2.0}\",\"('Au', 'Ti', 'Zr')\",OTHERS,False\nmp-768865,\"{'Lu': 8.0, 'Ge': 4.0, 'O': 20.0}\",\"('Ge', 'Lu', 'O')\",OTHERS,False\nmp-34322,\"{'Dy': 4.0, 'O': 14.0, 'Ti': 4.0}\",\"('Dy', 'O', 'Ti')\",OTHERS,False\nmp-756266,\"{'Li': 4.0, 'Cr': 3.0, 'Ga': 1.0, 'O': 8.0}\",\"('Cr', 'Ga', 'Li', 'O')\",OTHERS,False\nmvc-3477,\"{'Mn': 2.0, 'Zn': 2.0, 'F': 8.0}\",\"('F', 'Mn', 'Zn')\",OTHERS,False\nmp-582278,\"{'Tm': 16.0, 'In': 4.0, 'Rh': 4.0}\",\"('In', 'Rh', 'Tm')\",OTHERS,False\nmp-753874,\"{'Li': 4.0, 'Si': 4.0, 'Ni': 2.0, 'O': 12.0}\",\"('Li', 'Ni', 'O', 'Si')\",OTHERS,False\nmp-756160,\"{'Er': 6.0, 'Ta': 2.0, 'O': 14.0}\",\"('Er', 'O', 'Ta')\",OTHERS,False\nmp-1038781,\"{'Mg': 8.0, 'Bi': 4.0}\",\"('Bi', 'Mg')\",OTHERS,False\nmp-779091,\"{'Li': 2.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1225460,\"{'Fe': 4.0, 'H': 36.0, 'S': 8.0, 'O': 48.0}\",\"('Fe', 'H', 'O', 'S')\",OTHERS,False\nmp-1095497,\"{'Y': 3.0, 'Ir': 9.0}\",\"('Ir', 'Y')\",OTHERS,False\nmvc-2762,\"{'Ba': 2.0, 'Tl': 2.0, 'Zn': 2.0, 'Sn': 3.0, 'O': 10.0}\",\"('Ba', 'O', 'Sn', 'Tl', 'Zn')\",OTHERS,False\nmp-1224741,\"{'Gd': 4.0, 'Ti': 2.0, 'Cu': 2.0, 'O': 12.0}\",\"('Cu', 'Gd', 'O', 'Ti')\",OTHERS,False\nmvc-2773,\"{'Sr': 2.0, 'Sn': 2.0, 'P': 4.0, 'O': 16.0}\",\"('O', 'P', 'Sn', 'Sr')\",OTHERS,False\nmp-1200788,\"{'Cu': 12.0, 'P': 32.0, 'Se': 24.0, 'Br': 12.0}\",\"('Br', 'Cu', 'P', 'Se')\",OTHERS,False\nmvc-2768,\"{'Ba': 2.0, 'Ca': 2.0, 'Tl': 2.0, 'Sn': 3.0, 'O': 10.0}\",\"('Ba', 'Ca', 'O', 'Sn', 'Tl')\",OTHERS,False\nmp-675462,\"{'Mo': 8.0, 'Ru': 4.0, 'Se': 16.0}\",\"('Mo', 'Ru', 'Se')\",OTHERS,False\nmp-1216820,\"{'U': 2.0, 'Cu': 1.0, 'Si': 3.0}\",\"('Cu', 'Si', 'U')\",OTHERS,False\nmp-1209821,\"{'Np': 4.0, 'Ge': 4.0, 'O': 8.0}\",\"('Ge', 'Np', 'O')\",OTHERS,False\nmp-865762,\"{'Tl': 1.0, 'W': 2.0, 'Cl': 6.0, 'O': 2.0}\",\"('Cl', 'O', 'Tl', 'W')\",OTHERS,False\nmp-22502,\"{'N': 1.0, 'Mn': 3.0, 'Ir': 1.0}\",\"('Ir', 'Mn', 'N')\",OTHERS,False\nmp-776754,\"{'Li': 2.0, 'Fe': 3.0, 'F': 8.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-1189473,\"{'Fe': 1.0, 'Sb': 1.0, 'Cl': 8.0, 'O': 8.0}\",\"('Cl', 'Fe', 'O', 'Sb')\",OTHERS,False\nmp-628185,\"{'K': 6.0, 'Na': 2.0, 'Sn': 6.0, 'Se': 16.0}\",\"('K', 'Na', 'Se', 'Sn')\",OTHERS,False\nmp-30186,\"{'Si': 46.0, 'Ba': 6.0}\",\"('Ba', 'Si')\",OTHERS,False\nmp-636380,\"{'Li': 2.0, 'O': 8.0, 'Mo': 4.0}\",\"('Li', 'Mo', 'O')\",OTHERS,False\nmp-1221707,\"{'Mn': 9.0, 'Al': 4.0, 'V': 3.0}\",\"('Al', 'Mn', 'V')\",OTHERS,False\nmp-1204916,\"{'K': 8.0, 'Fe': 4.0, 'F': 20.0}\",\"('F', 'Fe', 'K')\",OTHERS,False\nmp-579552,\"{'La': 24.0, 'C': 12.0, 'O': 60.0}\",\"('C', 'La', 'O')\",OTHERS,False\nmp-1213172,\"{'Cs': 2.0, 'Tm': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Cs', 'Mo', 'O', 'Tm')\",OTHERS,False\nmp-1206129,\"{'Rb': 1.0, 'As': 2.0, 'Ru': 2.0}\",\"('As', 'Rb', 'Ru')\",OTHERS,False\nmp-1199646,\"{'Li': 4.0, 'Zn': 8.0, 'B': 20.0, 'H': 80.0}\",\"('B', 'H', 'Li', 'Zn')\",OTHERS,False\nmp-1185264,\"{'La': 3.0, 'Eu': 1.0}\",\"('Eu', 'La')\",OTHERS,False\nmp-776286,\"{'Ti': 3.0, 'Cr': 1.0, 'Sn': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'O', 'P', 'Sn', 'Ti')\",OTHERS,False\nmp-1195771,\"{'Zn': 8.0, 'As': 8.0, 'O': 36.0}\",\"('As', 'O', 'Zn')\",OTHERS,False\nmp-867169,\"{'Sr': 2.0, 'Sn': 1.0, 'Hg': 1.0}\",\"('Hg', 'Sn', 'Sr')\",OTHERS,False\nmp-1226470,\"{'Ce': 1.0, 'Y': 1.0, 'Co': 4.0}\",\"('Ce', 'Co', 'Y')\",OTHERS,False\nmp-1181758,\"{'Mn': 2.0, 'B': 8.0, 'O': 32.0}\",\"('B', 'Mn', 'O')\",OTHERS,False\nmp-1213420,\"{'Eu': 2.0, 'Sb': 3.0, 'Pd': 3.0}\",\"('Eu', 'Pd', 'Sb')\",OTHERS,False\nmp-1016823,\"{'Ba': 1.0, 'Ge': 1.0, 'O': 3.0}\",\"('Ba', 'Ge', 'O')\",OTHERS,False\nmp-557748,\"{'Sb': 8.0, 'Ir': 8.0, 'C': 16.0, 'O': 16.0, 'F': 48.0}\",\"('C', 'F', 'Ir', 'O', 'Sb')\",OTHERS,False\nmvc-11241,\"{'V': 1.0, 'S': 2.0}\",\"('S', 'V')\",OTHERS,False\nmp-30741,\"{'Ir': 3.0, 'Pa': 1.0}\",\"('Ir', 'Pa')\",OTHERS,False\nmp-769344,\"{'Ba': 16.0, 'Ta': 8.0, 'O': 36.0}\",\"('Ba', 'O', 'Ta')\",OTHERS,False\nmp-771042,\"{'Li': 6.0, 'Nb': 3.0, 'Fe': 3.0, 'O': 16.0}\",\"('Fe', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-1175222,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-770212,\"{'Li': 24.0, 'Ti': 8.0, 'S': 24.0, 'O': 4.0}\",\"('Li', 'O', 'S', 'Ti')\",OTHERS,False\nmp-1073254,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1222420,\"{'Li': 1.0, 'Fe': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-722485,\"{'Sr': 2.0, 'P': 4.0, 'H': 12.0, 'O': 18.0}\",\"('H', 'O', 'P', 'Sr')\",OTHERS,False\nmp-1183498,\"{'Ca': 3.0, 'Ho': 1.0}\",\"('Ca', 'Ho')\",OTHERS,False\nmp-1025183,\"{'Ho': 2.0, 'B': 4.0, 'C': 1.0}\",\"('B', 'C', 'Ho')\",OTHERS,False\nmp-1176918,\"{'Li': 12.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmvc-13706,\"{'Cr': 3.0, 'O': 8.0}\",\"('Cr', 'O')\",OTHERS,False\nmp-1210164,\"{'Ni': 2.0, 'N': 8.0, 'O': 16.0}\",\"('N', 'Ni', 'O')\",OTHERS,False\nmp-561551,\"{'Y': 4.0, 'Si': 4.0, 'O': 14.0}\",\"('O', 'Si', 'Y')\",OTHERS,False\nmp-29238,\"{'Se': 4.0, 'Ag': 4.0, 'Tl': 4.0}\",\"('Ag', 'Se', 'Tl')\",OTHERS,False\nmp-1191807,\"{'Cu': 8.0, 'Cl': 4.0, 'O': 12.0}\",\"('Cl', 'Cu', 'O')\",OTHERS,False\nmp-683983,\"{'Ta': 16.0, 'O': 32.0}\",\"('O', 'Ta')\",OTHERS,False\nmp-1204030,\"{'Si': 12.0, 'C': 16.0, 'N': 4.0, 'O': 38.0}\",\"('C', 'N', 'O', 'Si')\",OTHERS,False\nmp-1198773,\"{'Yb': 8.0, 'Cr': 8.0, 'O': 40.0}\",\"('Cr', 'O', 'Yb')\",OTHERS,False\nmp-7224,\"{'C': 4.0, 'Th': 2.0}\",\"('C', 'Th')\",OTHERS,False\nmp-1213192,\"{'Dy': 4.0, 'Fe': 34.0, 'C': 6.0}\",\"('C', 'Dy', 'Fe')\",OTHERS,False\nmp-867296,\"{'Re': 4.0, 'P': 4.0, 'O': 20.0}\",\"('O', 'P', 'Re')\",OTHERS,False\nmp-777558,\"{'Li': 32.0, 'Ti': 3.0, 'Cr': 13.0, 'O': 48.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nAu 64.2 Sn 21.3 Pr 14.5,\"{'Au': 64.2, 'Sn': 21.3, 'Pr': 14.5}\",\"('Au', 'Pr', 'Sn')\",AC,False\nmp-1188832,\"{'Nd': 4.0, 'Ga': 4.0, 'Pd': 8.0}\",\"('Ga', 'Nd', 'Pd')\",OTHERS,False\nmp-1215656,\"{'Zn': 1.0, 'Fe': 4.0, 'Cu': 1.0, 'O': 8.0}\",\"('Cu', 'Fe', 'O', 'Zn')\",OTHERS,False\nmp-2226,\"{'Pd': 1.0, 'Dy': 1.0}\",\"('Dy', 'Pd')\",OTHERS,False\nmp-1184190,\"{'Er': 1.0, 'Mg': 16.0, 'Al': 12.0}\",\"('Al', 'Er', 'Mg')\",OTHERS,False\nmp-1183917,\"{'Cs': 1.0, 'Mo': 1.0, 'O': 3.0}\",\"('Cs', 'Mo', 'O')\",OTHERS,False\nmp-1205020,\"{'Ca': 1.0, 'Cu': 4.0, 'As': 4.0, 'H': 2.0, 'O': 26.0}\",\"('As', 'Ca', 'Cu', 'H', 'O')\",OTHERS,False\nmp-1178405,\"{'Cs': 4.0, 'Hf': 2.0, 'O': 6.0}\",\"('Cs', 'Hf', 'O')\",OTHERS,False\nmp-1218070,\"{'Ta': 6.0, 'Cr': 1.0, 'C': 3.0, 'S': 6.0}\",\"('C', 'Cr', 'S', 'Ta')\",OTHERS,False\nmp-1213412,\"{'Gd': 16.0, 'Si': 8.0, 'Ni': 8.0, 'Bi': 4.0}\",\"('Bi', 'Gd', 'Ni', 'Si')\",OTHERS,False\nmp-541897,\"{'Cd': 2.0, 'Rb': 4.0, 'Se': 12.0, 'P': 4.0}\",\"('Cd', 'P', 'Rb', 'Se')\",OTHERS,False\nmp-1206747,\"{'Lu': 1.0, 'Tl': 1.0}\",\"('Lu', 'Tl')\",OTHERS,False\nmp-973892,\"{'Eu': 1.0, 'Al': 1.0, 'O': 3.0}\",\"('Al', 'Eu', 'O')\",OTHERS,False\nmp-1198386,\"{'Al': 16.0, 'Mo': 24.0}\",\"('Al', 'Mo')\",OTHERS,False\nmp-1100777,\"{'V': 1.0, 'Te': 1.0, 'O': 3.0}\",\"('O', 'Te', 'V')\",OTHERS,False\nmp-1201340,\"{'U': 4.0, 'P': 8.0, 'H': 8.0, 'C': 4.0, 'O': 52.0}\",\"('C', 'H', 'O', 'P', 'U')\",OTHERS,False\nmp-570480,\"{'Tc': 8.0, 'Br': 32.0}\",\"('Br', 'Tc')\",OTHERS,False\nmp-1093552,\"{'Mg': 2.0, 'Cd': 1.0, 'Pt': 1.0}\",\"('Cd', 'Mg', 'Pt')\",OTHERS,False\nmp-1056955,\"{'Ag': 1.0, 'N': 1.0}\",\"('Ag', 'N')\",OTHERS,False\nmp-710,\"{'P': 1.0, 'Sm': 1.0}\",\"('P', 'Sm')\",OTHERS,False\nmp-1086666,\"{'Sr': 2.0, 'Ta': 1.0, 'In': 1.0, 'O': 6.0}\",\"('In', 'O', 'Sr', 'Ta')\",OTHERS,False\nmp-16281,\"{'O': 14.0, 'Cd': 4.0, 'Sb': 4.0}\",\"('Cd', 'O', 'Sb')\",OTHERS,False\nmp-624417,\"{'Cd': 11.0, 'I': 22.0}\",\"('Cd', 'I')\",OTHERS,False\nmp-1222567,\"{'Li': 2.0, 'Nb': 2.0, 'W': 2.0, 'O': 14.0}\",\"('Li', 'Nb', 'O', 'W')\",OTHERS,False\nmp-1029595,\"{'Na': 12.0, 'Os': 4.0, 'N': 8.0}\",\"('N', 'Na', 'Os')\",OTHERS,False\nmp-1094963,\"{'Ce': 2.0, 'Mg': 2.0}\",\"('Ce', 'Mg')\",OTHERS,False\nmp-1021490,\"{'Sn': 4.0, 'S': 1.0, 'F': 6.0}\",\"('F', 'S', 'Sn')\",OTHERS,False\nmp-1111200,\"{'K': 2.0, 'Tl': 1.0, 'As': 1.0, 'I': 6.0}\",\"('As', 'I', 'K', 'Tl')\",OTHERS,False\nmp-695314,\"{'Ca': 10.0, 'Si': 4.0, 'H': 2.0, 'O': 18.0, 'F': 2.0}\",\"('Ca', 'F', 'H', 'O', 'Si')\",OTHERS,False\nmp-1176983,\"{'Li': 12.0, 'Mn': 2.0, 'V': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1099574,\"{'Ce': 16.0, 'Se': 32.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-1214495,\"{'Ba': 6.0, 'Ti': 2.0, 'O': 10.0}\",\"('Ba', 'O', 'Ti')\",OTHERS,False\nmp-1182967,\"{'Al': 2.0, 'Cu': 4.0, 'As': 2.0, 'O': 24.0}\",\"('Al', 'As', 'Cu', 'O')\",OTHERS,False\nmp-867369,\"{'Tc': 2.0, 'F': 6.0}\",\"('F', 'Tc')\",OTHERS,False\nmp-755692,\"{'Nb': 2.0, 'V': 2.0, 'O': 10.0}\",\"('Nb', 'O', 'V')\",OTHERS,False\nmp-1219459,\"{'Sb': 1.0, 'Te': 1.0}\",\"('Sb', 'Te')\",OTHERS,False\nmp-768407,\"{'Li': 24.0, 'Ti': 5.0, 'Cr': 7.0, 'O': 36.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-1035190,\"{'Mg': 14.0, 'Zn': 1.0, 'Co': 1.0, 'O': 16.0}\",\"('Co', 'Mg', 'O', 'Zn')\",OTHERS,False\nmp-1203220,\"{'In': 8.0, 'Rh': 8.0, 'O': 24.0}\",\"('In', 'O', 'Rh')\",OTHERS,False\nmp-866013,\"{'Dy': 1.0, 'Tm': 1.0, 'Mg': 2.0}\",\"('Dy', 'Mg', 'Tm')\",OTHERS,False\nmp-12553,\"{'Al': 6.0, 'Pr': 2.0}\",\"('Al', 'Pr')\",OTHERS,False\nmvc-1258,\"{'Mg': 4.0, 'Cr': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Cr', 'Mg', 'O', 'P')\",OTHERS,False\nmp-1210149,\"{'Sm': 46.0, 'Cd': 8.0, 'Rh': 14.0}\",\"('Cd', 'Rh', 'Sm')\",OTHERS,False\nmp-722501,\"{'Sn': 4.0, 'H': 12.0, 'S': 16.0, 'N': 16.0, 'Cl': 20.0, 'O': 4.0}\",\"('Cl', 'H', 'N', 'O', 'S', 'Sn')\",OTHERS,False\nmp-560687,\"{'Nb': 12.0, 'Te': 32.0, 'I': 28.0, 'O': 4.0}\",\"('I', 'Nb', 'O', 'Te')\",OTHERS,False\nmp-1008498,{'Ca': 4.0},\"('Ca',)\",OTHERS,False\nmp-1186803,\"{'Pu': 1.0, 'S': 3.0}\",\"('Pu', 'S')\",OTHERS,False\nmp-22965,\"{'Te': 1.0, 'I': 1.0, 'Bi': 1.0}\",\"('Bi', 'I', 'Te')\",OTHERS,False\nmp-1208543,\"{'Tb': 4.0, 'Co': 2.0, 'Pt': 2.0, 'O': 12.0}\",\"('Co', 'O', 'Pt', 'Tb')\",OTHERS,False\nmp-1079779,\"{'Tb': 4.0, 'In': 2.0, 'Cu': 4.0}\",\"('Cu', 'In', 'Tb')\",OTHERS,False\nmp-1078217,\"{'Na': 2.0, 'Fe': 2.0, 'F': 6.0}\",\"('F', 'Fe', 'Na')\",OTHERS,False\nmp-1193698,\"{'Zr': 12.0, 'Fe': 12.0, 'C': 4.0}\",\"('C', 'Fe', 'Zr')\",OTHERS,False\nmp-1192827,\"{'Eu': 16.0, 'In': 6.0}\",\"('Eu', 'In')\",OTHERS,False\nmp-761164,\"{'Li': 4.0, 'Nb': 4.0, 'F': 20.0}\",\"('F', 'Li', 'Nb')\",OTHERS,False\nmp-754117,\"{'Y': 2.0, 'H': 2.0, 'O': 4.0}\",\"('H', 'O', 'Y')\",OTHERS,False\nmp-555560,\"{'Cd': 2.0, 'Te': 2.0, 'Mo': 2.0, 'O': 12.0}\",\"('Cd', 'Mo', 'O', 'Te')\",OTHERS,False\nmp-13501,\"{'C': 2.0, 'Co': 1.0, 'Er': 1.0}\",\"('C', 'Co', 'Er')\",OTHERS,False\nmp-13992,\"{'S': 4.0, 'Cs': 2.0, 'Pt': 3.0}\",\"('Cs', 'Pt', 'S')\",OTHERS,False\nmp-19814,\"{'Ni': 2.0, 'As': 4.0}\",\"('As', 'Ni')\",OTHERS,False\nmp-20828,\"{'Pt': 3.0, 'Pb': 1.0}\",\"('Pb', 'Pt')\",OTHERS,False\nmp-35876,\"{'Ca': 2.0, 'Nd': 4.0, 'S': 8.0}\",\"('Ca', 'Nd', 'S')\",OTHERS,False\nmp-1076151,\"{'Ca': 4.0, 'Ti': 4.0, 'O': 10.0}\",\"('Ca', 'O', 'Ti')\",OTHERS,False\nmp-1099116,\"{'Ce': 1.0, 'Mg': 14.0, 'C': 1.0}\",\"('C', 'Ce', 'Mg')\",OTHERS,False\nmp-23415,\"{'Tl': 4.0, 'Fe': 4.0, 'I': 12.0}\",\"('Fe', 'I', 'Tl')\",OTHERS,False\nmp-1246175,\"{'Ca': 6.0, 'Zr': 4.0, 'N': 8.0}\",\"('Ca', 'N', 'Zr')\",OTHERS,False\nmp-1181826,\"{'Co': 1.0, 'Cu': 1.0, 'P': 2.0, 'O': 7.0}\",\"('Co', 'Cu', 'O', 'P')\",OTHERS,False\nmp-1075724,\"{'Mg': 10.0, 'Si': 18.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-541787,\"{'Na': 32.0, 'Hg': 12.0}\",\"('Hg', 'Na')\",OTHERS,False\nmp-765350,\"{'La': 8.0, 'H': 8.0, 'Se': 24.0, 'O': 80.0}\",\"('H', 'La', 'O', 'Se')\",OTHERS,False\nmp-1184176,\"{'Dy': 4.0, 'Sc': 4.0, 'S': 12.0}\",\"('Dy', 'S', 'Sc')\",OTHERS,False\nmp-1212202,\"{'Mn': 8.0, 'Cr': 12.0, 'N': 8.0, 'O': 48.0}\",\"('Cr', 'Mn', 'N', 'O')\",OTHERS,False\nmp-1200365,\"{'Cs': 4.0, 'Mo': 10.0, 'O': 32.0}\",\"('Cs', 'Mo', 'O')\",OTHERS,False\nmp-1104964,\"{'Lu': 2.0, 'Ni': 8.0, 'As': 4.0}\",\"('As', 'Lu', 'Ni')\",OTHERS,False\nmp-1183595,\"{'Ca': 1.0, 'Yb': 1.0, 'Tl': 2.0}\",\"('Ca', 'Tl', 'Yb')\",OTHERS,False\nmp-1210069,\"{'Na': 1.0, 'Dy': 1.0, 'Pd': 6.0, 'O': 8.0}\",\"('Dy', 'Na', 'O', 'Pd')\",OTHERS,False\nmp-20082,\"{'As': 4.0, 'Rh': 6.0, 'Yb': 1.0}\",\"('As', 'Rh', 'Yb')\",OTHERS,False\nmp-1183340,\"{'Ba': 3.0, 'Ho': 1.0}\",\"('Ba', 'Ho')\",OTHERS,False\nmp-1214186,\"{'C': 12.0, 'I': 4.0, 'F': 8.0}\",\"('C', 'F', 'I')\",OTHERS,False\nmp-543094,\"{'Li': 4.0, 'Fe': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1190199,\"{'Cu': 1.0, 'Sb': 6.0, 'S': 2.0, 'O': 16.0}\",\"('Cu', 'O', 'S', 'Sb')\",OTHERS,False\nmp-19467,\"{'O': 32.0, 'P': 6.0, 'Mo': 6.0, 'Ag': 2.0}\",\"('Ag', 'Mo', 'O', 'P')\",OTHERS,False\nmp-504353,\"{'Li': 2.0, 'O': 24.0, 'P': 8.0, 'Sb': 2.0}\",\"('Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1096596,\"{'Ti': 1.0, 'Cu': 1.0, 'Au': 2.0}\",\"('Au', 'Cu', 'Ti')\",OTHERS,False\nmp-23662,\"{'Li': 8.0, 'B': 8.0, 'H': 32.0, 'O': 32.0}\",\"('B', 'H', 'Li', 'O')\",OTHERS,False\nmp-764989,\"{'Li': 8.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1207893,\"{'V': 5.0, 'Se': 8.0}\",\"('Se', 'V')\",OTHERS,False\nmp-554756,\"{'P': 12.0, 'H': 72.0, 'C': 12.0, 'N': 12.0, 'O': 36.0}\",\"('C', 'H', 'N', 'O', 'P')\",OTHERS,False\nmp-1246486,\"{'Ca': 14.0, 'Re': 2.0, 'N': 12.0}\",\"('Ca', 'N', 'Re')\",OTHERS,False\nmp-849498,\"{'Li': 10.0, 'Mn': 12.0, 'B': 12.0, 'O': 36.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-29922,\"{'O': 40.0, 'P': 4.0, 'Sb': 20.0}\",\"('O', 'P', 'Sb')\",OTHERS,False\nmp-1216294,\"{'U': 2.0, 'Al': 2.0, 'Co': 2.0}\",\"('Al', 'Co', 'U')\",OTHERS,False\nmp-1106389,\"{'K': 2.0, 'Bi': 2.0, 'F': 12.0}\",\"('Bi', 'F', 'K')\",OTHERS,False\nmp-1175781,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-753920,\"{'Tm': 2.0, 'Se': 1.0, 'O': 2.0}\",\"('O', 'Se', 'Tm')\",OTHERS,False\nmp-8341,\"{'O': 40.0, 'Na': 8.0, 'Ge': 8.0, 'Sb': 8.0}\",\"('Ge', 'Na', 'O', 'Sb')\",OTHERS,False\nmp-757511,\"{'Li': 8.0, 'Ni': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-29487,\"{'Cl': 12.0, 'Pd': 6.0}\",\"('Cl', 'Pd')\",OTHERS,False\nmp-22005,\"{'O': 28.0, 'V': 8.0, 'Pb': 8.0}\",\"('O', 'Pb', 'V')\",OTHERS,False\nmp-677233,\"{'Na': 4.0, 'Al': 12.0, 'Tl': 8.0, 'Si': 12.0, 'O': 48.0}\",\"('Al', 'Na', 'O', 'Si', 'Tl')\",OTHERS,False\nmp-1102542,\"{'Hf': 8.0, 'Ni': 2.0, 'P': 2.0}\",\"('Hf', 'Ni', 'P')\",OTHERS,False\nmp-1225482,\"{'La': 1.0, 'Ce': 1.0, 'Al': 2.0, 'O': 6.0}\",\"('Al', 'Ce', 'La', 'O')\",OTHERS,False\nmvc-16792,\"{'Y': 2.0, 'Mn': 4.0, 'S': 8.0}\",\"('Mn', 'S', 'Y')\",OTHERS,False\nmp-770680,\"{'Li': 36.0, 'Mn': 8.0, 'Al': 4.0, 'O': 32.0}\",\"('Al', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-12497,\"{'Cd': 2.0, 'Te': 6.0, 'Cs': 2.0, 'Sm': 2.0}\",\"('Cd', 'Cs', 'Sm', 'Te')\",OTHERS,False\nmp-1205553,\"{'Sr': 2.0, 'Lu': 1.0, 'Ta': 1.0, 'O': 6.0}\",\"('Lu', 'O', 'Sr', 'Ta')\",OTHERS,False\nmp-985288,\"{'As': 6.0, 'W': 2.0}\",\"('As', 'W')\",OTHERS,False\nmp-556631,\"{'K': 4.0, 'Zr': 4.0, 'Sn': 4.0, 'F': 28.0}\",\"('F', 'K', 'Sn', 'Zr')\",OTHERS,False\nCd 6 Gd 1,\"{'Cd': 6.0, 'Gd': 1.0}\",\"('Cd', 'Gd')\",AC,False\nmp-690794,\"{'Sr': 2.0, 'H': 1.0, 'N': 1.0}\",\"('H', 'N', 'Sr')\",OTHERS,False\nmp-1007636,\"{'K': 1.0, 'Lu': 1.0, 'S': 2.0}\",\"('K', 'Lu', 'S')\",OTHERS,False\nmp-1176171,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-755601,\"{'Fe': 6.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-559638,\"{'K': 12.0, 'Np': 4.0, 'O': 8.0, 'F': 20.0}\",\"('F', 'K', 'Np', 'O')\",OTHERS,False\nmp-1186475,\"{'Pm': 2.0, 'Mg': 1.0, 'Ge': 1.0}\",\"('Ge', 'Mg', 'Pm')\",OTHERS,False\nmp-1185635,\"{'Mg': 149.0, 'Tl': 1.0}\",\"('Mg', 'Tl')\",OTHERS,False\nmp-1225147,\"{'Fe': 4.0, 'Ni': 4.0, 'Pd': 1.0, 'S': 8.0}\",\"('Fe', 'Ni', 'Pd', 'S')\",OTHERS,False\nmp-4322,\"{'B': 2.0, 'Co': 2.0, 'Pr': 1.0}\",\"('B', 'Co', 'Pr')\",OTHERS,False\nmp-696989,\"{'Na': 2.0, 'P': 2.0, 'H': 10.0, 'C': 4.0, 'S': 2.0, 'N': 6.0, 'O': 8.0}\",\"('C', 'H', 'N', 'Na', 'O', 'P', 'S')\",OTHERS,False\nmp-1113667,\"{'Rb': 2.0, 'Bi': 1.0, 'Au': 1.0, 'Cl': 6.0}\",\"('Au', 'Bi', 'Cl', 'Rb')\",OTHERS,False\nmp-1093629,\"{'Mn': 1.0, 'Al': 2.0, 'Fe': 1.0}\",\"('Al', 'Fe', 'Mn')\",OTHERS,False\nmp-707845,\"{'K': 12.0, 'Zr': 4.0, 'H': 4.0, 'S': 4.0, 'O': 20.0, 'F': 20.0}\",\"('F', 'H', 'K', 'O', 'S', 'Zr')\",OTHERS,False\nmp-32502,\"{'Li': 2.0, 'V': 2.0, 'P': 8.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-978544,\"{'Sm': 1.0, 'Lu': 1.0, 'Tl': 2.0}\",\"('Lu', 'Sm', 'Tl')\",OTHERS,False\nmp-1184930,\"{'Ho': 2.0, 'Lu': 6.0}\",\"('Ho', 'Lu')\",OTHERS,False\nmp-1173714,\"{'Na': 8.0, 'Al': 6.0, 'Si': 6.0, 'N': 2.0, 'O': 28.0}\",\"('Al', 'N', 'Na', 'O', 'Si')\",OTHERS,False\nmp-11467,\"{'Nd': 1.0, 'Hg': 1.0}\",\"('Hg', 'Nd')\",OTHERS,False\nmp-1202582,\"{'Mo': 4.0, 'Rh': 4.0, 'N': 20.0, 'Cl': 4.0, 'O': 16.0}\",\"('Cl', 'Mo', 'N', 'O', 'Rh')\",OTHERS,False\nmp-1246734,\"{'Fe': 16.0, 'Si': 16.0, 'N': 32.0}\",\"('Fe', 'N', 'Si')\",OTHERS,False\nmp-559764,\"{'Nd': 12.0, 'Si': 8.0, 'Cl': 4.0, 'O': 32.0}\",\"('Cl', 'Nd', 'O', 'Si')\",OTHERS,False\nmp-1102114,\"{'Ta': 4.0, 'N': 8.0}\",\"('N', 'Ta')\",OTHERS,False\nmp-1112617,\"{'Cs': 2.0, 'Pr': 1.0, 'Cu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Cu', 'Pr')\",OTHERS,False\nmp-1037960,\"{'Ca': 1.0, 'Mg': 30.0, 'Cr': 1.0, 'O': 32.0}\",\"('Ca', 'Cr', 'Mg', 'O')\",OTHERS,False\nmp-850786,\"{'Li': 6.0, 'Mn': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-20547,\"{'Ca': 12.0, 'Fe': 24.0, 'O': 48.0}\",\"('Ca', 'Fe', 'O')\",OTHERS,False\nmp-1247673,\"{'Ca': 8.0, 'Ti': 3.0, 'Mn': 5.0, 'O': 21.0}\",\"('Ca', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-1173025,\"{'Ag': 6.0, 'S': 2.0, 'I': 2.0}\",\"('Ag', 'I', 'S')\",OTHERS,False\nmp-1074466,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1188666,\"{'Sm': 6.0, 'Cu': 6.0, 'Sb': 8.0}\",\"('Cu', 'Sb', 'Sm')\",OTHERS,False\nmp-2363,\"{'Mo': 4.0, 'Hf': 2.0}\",\"('Hf', 'Mo')\",OTHERS,False\nmp-973662,\"{'Lu': 2.0, 'Zn': 1.0, 'Cu': 1.0}\",\"('Cu', 'Lu', 'Zn')\",OTHERS,False\nmp-1232329,\"{'K': 2.0, 'Zn': 2.0, 'Cu': 1.0, 'S': 2.0, 'O': 2.0}\",\"('Cu', 'K', 'O', 'S', 'Zn')\",OTHERS,False\nmp-1102396,\"{'Ba': 8.0, 'In': 4.0}\",\"('Ba', 'In')\",OTHERS,False\nmp-1221960,\"{'Mn': 1.0, 'Fe': 2.0, 'Pb': 2.0, 'O': 3.0, 'F': 12.0}\",\"('F', 'Fe', 'Mn', 'O', 'Pb')\",OTHERS,False\nmp-1210466,\"{'Na': 4.0, 'Mg': 2.0, 'Sc': 2.0, 'F': 14.0}\",\"('F', 'Mg', 'Na', 'Sc')\",OTHERS,False\nmp-1227504,\"{'Bi': 8.0, 'Se': 8.0, 'S': 4.0}\",\"('Bi', 'S', 'Se')\",OTHERS,False\nmvc-20,\"{'Nb': 4.0, 'Te': 2.0, 'O': 16.0}\",\"('Nb', 'O', 'Te')\",OTHERS,False\nmp-758588,\"{'K': 8.0, 'Li': 6.0, 'Fe': 4.0, 'O': 16.0}\",\"('Fe', 'K', 'Li', 'O')\",OTHERS,False\nmp-769110,\"{'Li': 4.0, 'Co': 8.0, 'S': 12.0, 'O': 48.0}\",\"('Co', 'Li', 'O', 'S')\",OTHERS,False\nmp-1246819,\"{'In': 1.0, 'C': 1.0, 'N': 2.0}\",\"('C', 'In', 'N')\",OTHERS,False\nmp-1040297,\"{'K': 1.0, 'Mg': 30.0, 'B': 1.0, 'O': 31.0}\",\"('B', 'K', 'Mg', 'O')\",OTHERS,False\nmp-12602,\"{'Zn': 5.0, 'Pr': 1.0}\",\"('Pr', 'Zn')\",OTHERS,False\nmp-1208877,\"{'Sr': 2.0, 'Eu': 1.0, 'Ta': 1.0, 'Cu': 2.0, 'O': 8.0}\",\"('Cu', 'Eu', 'O', 'Sr', 'Ta')\",OTHERS,False\nmp-1188001,\"{'Zr': 2.0, 'Tc': 1.0, 'Ir': 1.0}\",\"('Ir', 'Tc', 'Zr')\",OTHERS,False\nmp-27628,\"{'Cl': 8.0, 'Te': 12.0}\",\"('Cl', 'Te')\",OTHERS,False\nmp-1111912,\"{'K': 2.0, 'Rb': 1.0, 'Ir': 1.0, 'F': 6.0}\",\"('F', 'Ir', 'K', 'Rb')\",OTHERS,False\nmp-11291,\"{'Cd': 1.0, 'Ce': 1.0}\",\"('Cd', 'Ce')\",OTHERS,False\nmp-1220232,\"{'Ni': 10.0, 'Ge': 2.0, 'B': 4.0, 'O': 20.0}\",\"('B', 'Ge', 'Ni', 'O')\",OTHERS,False\nmp-4393,\"{'O': 68.0, 'Cs': 16.0, 'U': 20.0}\",\"('Cs', 'O', 'U')\",OTHERS,False\nmp-862635,\"{'Sc': 1.0, 'Sb': 1.0, 'Rh': 2.0}\",\"('Rh', 'Sb', 'Sc')\",OTHERS,False\nmp-1259193,\"{'Sr': 4.0, 'Y': 2.0, 'Mn': 4.0, 'Al': 2.0, 'O': 14.0}\",\"('Al', 'Mn', 'O', 'Sr', 'Y')\",OTHERS,False\nmp-8387,\"{'O': 6.0, 'Te': 1.0, 'Tl': 6.0}\",\"('O', 'Te', 'Tl')\",OTHERS,False\nmp-31245,\"{'O': 22.0, 'Te': 8.0, 'Tb': 4.0}\",\"('O', 'Tb', 'Te')\",OTHERS,False\nmp-558153,\"{'Ba': 24.0, 'Nb': 12.0, 'O': 18.0, 'F': 72.0}\",\"('Ba', 'F', 'Nb', 'O')\",OTHERS,False\nmp-31147,\"{'Si': 2.0, 'Zn': 2.0, 'Ba': 2.0}\",\"('Ba', 'Si', 'Zn')\",OTHERS,False\nmp-1027143,\"{'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 6.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-1079307,\"{'Dy': 3.0, 'Co': 2.0, 'Ge': 4.0}\",\"('Co', 'Dy', 'Ge')\",OTHERS,False\nmp-849522,\"{'Li': 16.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1215607,\"{'Zr': 2.0, 'Ti': 1.0, 'Sn': 1.0, 'O': 8.0}\",\"('O', 'Sn', 'Ti', 'Zr')\",OTHERS,False\nmp-1211000,\"{'Li': 2.0, 'Sm': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Li', 'O', 'Sm', 'W')\",OTHERS,False\nmp-1078813,\"{'Y': 3.0, 'Zn': 3.0, 'Pd': 3.0}\",\"('Pd', 'Y', 'Zn')\",OTHERS,False\nmp-740746,\"{'Na': 4.0, 'H': 8.0, 'Br': 4.0, 'O': 20.0}\",\"('Br', 'H', 'Na', 'O')\",OTHERS,False\nmp-1072004,\"{'U': 2.0, 'Co': 2.0, 'Ge': 2.0}\",\"('Co', 'Ge', 'U')\",OTHERS,False\nmp-673681,\"{'Ta': 22.0, 'O': 4.0}\",\"('O', 'Ta')\",OTHERS,False\nmp-735521,\"{'Mn': 4.0, 'H': 24.0, 'O': 12.0, 'F': 12.0}\",\"('F', 'H', 'Mn', 'O')\",OTHERS,False\nmp-581635,\"{'Cs': 6.0, 'Te': 34.0, 'Mo': 30.0}\",\"('Cs', 'Mo', 'Te')\",OTHERS,False\nmp-1077288,\"{'Na': 4.0, 'Cl': 2.0}\",\"('Cl', 'Na')\",OTHERS,False\nmp-758298,\"{'Li': 8.0, 'Ni': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1209465,\"{'Rb': 4.0, 'Mo': 2.0, 'O': 4.0, 'F': 8.0}\",\"('F', 'Mo', 'O', 'Rb')\",OTHERS,False\nmp-1187161,\"{'Sr': 6.0, 'Pm': 2.0}\",\"('Pm', 'Sr')\",OTHERS,False\nmp-1174413,\"{'Li': 6.0, 'Mn': 2.0, 'Co': 2.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-3775,\"{'F': 18.0, 'Na': 6.0, 'Si': 3.0}\",\"('F', 'Na', 'Si')\",OTHERS,False\nmp-510083,\"{'Tb': 8.0, 'Ti': 12.0, 'Si': 16.0}\",\"('Si', 'Tb', 'Ti')\",OTHERS,False\nmp-866159,\"{'Y': 1.0, 'Zr': 1.0, 'Ru': 2.0}\",\"('Ru', 'Y', 'Zr')\",OTHERS,False\nmp-686466,\"{'Pr': 32.0, 'Si': 32.0, 'N': 54.0, 'Cl': 6.0, 'O': 28.0}\",\"('Cl', 'N', 'O', 'Pr', 'Si')\",OTHERS,False\nmp-746692,\"{'K': 4.0, 'Co': 6.0, 'P': 8.0, 'H': 8.0, 'O': 32.0}\",\"('Co', 'H', 'K', 'O', 'P')\",OTHERS,False\nmp-1114468,\"{'Rb': 2.0, 'Al': 1.0, 'Tl': 1.0, 'F': 6.0}\",\"('Al', 'F', 'Rb', 'Tl')\",OTHERS,False\nmp-1182659,\"{'Cu': 4.0, 'H': 28.0, 'C': 12.0, 'S': 4.0, 'N': 12.0, 'O': 16.0}\",\"('C', 'Cu', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-1213233,\"{'Dy': 8.0, 'Ni': 2.0}\",\"('Dy', 'Ni')\",OTHERS,False\nmp-972868,\"{'Si': 2.0, 'Au': 6.0}\",\"('Au', 'Si')\",OTHERS,False\nmp-1181940,\"{'Cd': 1.0, 'Cl': 2.0}\",\"('Cd', 'Cl')\",OTHERS,False\nmp-1106156,\"{'Cs': 4.0, 'Hg': 6.0, 'Se': 8.0}\",\"('Cs', 'Hg', 'Se')\",OTHERS,False\nmp-778232,\"{'Li': 8.0, 'V': 12.0, 'Cr': 8.0, 'O': 48.0}\",\"('Cr', 'Li', 'O', 'V')\",OTHERS,False\nmp-849641,\"{'V': 8.0, 'O': 12.0, 'F': 4.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-1112651,\"{'Cs': 3.0, 'In': 1.0, 'Br': 6.0}\",\"('Br', 'Cs', 'In')\",OTHERS,False\nmp-685168,\"{'Be': 16.0, 'F': 32.0}\",\"('Be', 'F')\",OTHERS,False\nmp-1220473,\"{'Nb': 2.0, 'Tl': 2.0, 'Te': 2.0, 'O': 12.0}\",\"('Nb', 'O', 'Te', 'Tl')\",OTHERS,False\nmp-530184,\"{'Al': 16.0, 'Ni': 8.0, 'O': 32.0}\",\"('Al', 'Ni', 'O')\",OTHERS,False\nmp-2970,\"{'O': 8.0, 'Na': 8.0, 'Ge': 2.0}\",\"('Ge', 'Na', 'O')\",OTHERS,False\nmp-556705,\"{'As': 4.0, 'S': 4.0, 'Cl': 12.0, 'F': 24.0}\",\"('As', 'Cl', 'F', 'S')\",OTHERS,False\nmp-1218571,\"{'Sr': 3.0, 'Li': 4.0, 'Nb': 6.0, 'O': 20.0}\",\"('Li', 'Nb', 'O', 'Sr')\",OTHERS,False\nmp-754976,\"{'Cs': 2.0, 'Be': 1.0, 'O': 2.0}\",\"('Be', 'Cs', 'O')\",OTHERS,False\nmp-777532,\"{'Li': 32.0, 'Ti': 5.0, 'Cr': 11.0, 'O': 48.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-865753,\"{'Yb': 1.0, 'Er': 1.0, 'Pd': 2.0}\",\"('Er', 'Pd', 'Yb')\",OTHERS,False\nmp-1180739,\"{'La': 4.0, 'Ga': 4.0, 'O': 12.0}\",\"('Ga', 'La', 'O')\",OTHERS,False\nmp-1228871,\"{'Cd': 1.0, 'Fe': 4.0, 'Cu': 10.0, 'Sn': 5.0, 'Se': 20.0}\",\"('Cd', 'Cu', 'Fe', 'Se', 'Sn')\",OTHERS,False\nmp-557597,\"{'K': 2.0, 'Ca': 1.0, 'N': 4.0, 'O': 8.0}\",\"('Ca', 'K', 'N', 'O')\",OTHERS,False\nmp-752398,\"{'Ba': 1.0, 'Cu': 1.0, 'O': 2.0}\",\"('Ba', 'Cu', 'O')\",OTHERS,False\nmp-755103,\"{'Li': 4.0, 'Fe': 4.0, 'F': 12.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-21608,\"{'B': 6.0, 'Ni': 21.0, 'Tm': 2.0}\",\"('B', 'Ni', 'Tm')\",OTHERS,False\nmvc-10576,\"{'Ba': 2.0, 'Mg': 3.0, 'Tl': 2.0, 'Sn': 4.0, 'O': 12.0}\",\"('Ba', 'Mg', 'O', 'Sn', 'Tl')\",OTHERS,False\nAg 43.4 In 42.8 Eu 13.8,\"{'Ag': 43.4, 'In': 42.8, 'Eu': 13.8}\",\"('Ag', 'Eu', 'In')\",AC,False\nmp-1006328,\"{'Li': 8.0, 'Ce': 8.0, 'Sn': 8.0}\",\"('Ce', 'Li', 'Sn')\",OTHERS,False\nmp-27713,\"{'O': 1.0, 'V': 1.0, 'Br': 2.0}\",\"('Br', 'O', 'V')\",OTHERS,False\nmp-1244982,\"{'Al': 40.0, 'O': 60.0}\",\"('Al', 'O')\",OTHERS,False\nmp-29618,\"{'P': 6.0, 'Ni': 2.0, 'W': 4.0}\",\"('Ni', 'P', 'W')\",OTHERS,False\nmp-675419,\"{'Li': 2.0, 'Pr': 2.0, 'S': 4.0}\",\"('Li', 'Pr', 'S')\",OTHERS,False\nmvc-3060,\"{'Ba': 2.0, 'Mn': 3.0, 'Tl': 2.0, 'Zn': 2.0, 'O': 10.0}\",\"('Ba', 'Mn', 'O', 'Tl', 'Zn')\",OTHERS,False\nmp-1100672,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-768293,\"{'Lu': 8.0, 'Se': 8.0, 'O': 24.0}\",\"('Lu', 'O', 'Se')\",OTHERS,False\nmp-1189443,\"{'H': 4.0, 'N': 4.0, 'F': 8.0}\",\"('F', 'H', 'N')\",OTHERS,False\nmp-754041,\"{'Gd': 4.0, 'Hf': 2.0, 'O': 10.0}\",\"('Gd', 'Hf', 'O')\",OTHERS,False\nmp-1196472,\"{'Pr': 8.0, 'U': 4.0, 'S': 20.0}\",\"('Pr', 'S', 'U')\",OTHERS,False\nmp-907,\"{'O': 49.0, 'W': 18.0}\",\"('O', 'W')\",OTHERS,False\nmp-1247466,\"{'Mg': 2.0, 'Sc': 3.0, 'Cr': 1.0, 'S': 8.0}\",\"('Cr', 'Mg', 'S', 'Sc')\",OTHERS,False\nmp-561179,\"{'Ba': 8.0, 'Cu': 4.0, 'I': 4.0, 'O': 8.0}\",\"('Ba', 'Cu', 'I', 'O')\",OTHERS,False\nmp-1702,\"{'Rh': 4.0, 'La': 2.0}\",\"('La', 'Rh')\",OTHERS,False\nmp-850985,\"{'Li': 4.0, 'Fe': 4.0, 'P': 8.0, 'H': 4.0, 'O': 28.0}\",\"('Fe', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-1226856,\"{'Ce': 3.0, 'Nd': 1.0, 'C': 8.0}\",\"('C', 'Ce', 'Nd')\",OTHERS,False\nmp-541785,\"{'Ge': 2.0, 'Pd': 2.0, 'S': 6.0}\",\"('Ge', 'Pd', 'S')\",OTHERS,False\nmp-1001784,\"{'Li': 1.0, 'Ti': 1.0, 'S': 2.0}\",\"('Li', 'S', 'Ti')\",OTHERS,False\nmp-1203368,\"{'Zn': 48.0, 'As': 32.0}\",\"('As', 'Zn')\",OTHERS,False\nmp-27077,\"{'Li': 14.0, 'O': 64.0, 'P': 18.0, 'Cr': 8.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1198461,\"{'Na': 80.0, 'Fe': 16.0, 'P': 32.0, 'O': 128.0, 'F': 32.0}\",\"('F', 'Fe', 'Na', 'O', 'P')\",OTHERS,False\nmp-1228042,\"{'Ca': 4.0, 'Eu': 2.0, 'Cu': 4.0, 'O': 12.0}\",\"('Ca', 'Cu', 'Eu', 'O')\",OTHERS,False\nmp-580329,\"{'Pu': 3.0, 'Sn': 1.0}\",\"('Pu', 'Sn')\",OTHERS,False\nmp-743619,\"{'Co': 2.0, 'H': 12.0, 'C': 4.0, 'S': 4.0, 'N': 4.0, 'O': 6.0}\",\"('C', 'Co', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-768232,\"{'Rb': 12.0, 'Sb': 4.0, 'O': 12.0}\",\"('O', 'Rb', 'Sb')\",OTHERS,False\nmp-705194,\"{'Mn': 16.0, 'Sn': 8.0, 'C': 80.0, 'Br': 8.0, 'O': 80.0}\",\"('Br', 'C', 'Mn', 'O', 'Sn')\",OTHERS,False\nmp-1216288,\"{'W': 12.0, 'N': 3.0, 'O': 36.0}\",\"('N', 'O', 'W')\",OTHERS,False\nmp-705871,\"{'Ca': 14.0, 'Al': 6.0, 'Si': 20.0, 'N': 42.0}\",\"('Al', 'Ca', 'N', 'Si')\",OTHERS,False\nmp-774348,\"{'Li': 6.0, 'Mn': 2.0, 'Fe': 4.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1245231,\"{'B': 50.0, 'N': 50.0}\",\"('B', 'N')\",OTHERS,False\nmp-1174645,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-29584,\"{'Be': 1.0, 'K': 4.0, 'As': 2.0}\",\"('As', 'Be', 'K')\",OTHERS,False\nmp-1198503,\"{'U': 2.0, 'Zn': 40.0, 'Rh': 4.0}\",\"('Rh', 'U', 'Zn')\",OTHERS,False\nmvc-10098,\"{'Zn': 6.0, 'Cr': 12.0, 'O': 24.0}\",\"('Cr', 'O', 'Zn')\",OTHERS,False\nmp-1222879,\"{'La': 1.0, 'Mn': 1.0, 'Ni': 4.0}\",\"('La', 'Mn', 'Ni')\",OTHERS,False\nmp-634378,\"{'Na': 4.0, 'H': 4.0, 'S': 4.0, 'O': 16.0}\",\"('H', 'Na', 'O', 'S')\",OTHERS,False\nmp-558281,\"{'F': 8.0, 'Cr': 2.0, 'Sr': 2.0}\",\"('Cr', 'F', 'Sr')\",OTHERS,False\nmp-1178661,\"{'Yb': 2.0, 'Mo': 2.0, 'Cl': 2.0, 'O': 8.0}\",\"('Cl', 'Mo', 'O', 'Yb')\",OTHERS,False\nmp-1174818,\"{'Li': 6.0, 'Mn': 3.0, 'Co': 1.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-19844,\"{'Na': 1.0, 'Fe': 4.0, 'Sb': 12.0}\",\"('Fe', 'Na', 'Sb')\",OTHERS,False\nmp-1191530,\"{'Er': 6.0, 'Ga': 2.0, 'Co': 2.0, 'S': 14.0}\",\"('Co', 'Er', 'Ga', 'S')\",OTHERS,False\nmp-1186326,\"{'Nd': 1.0, 'Re': 1.0, 'O': 3.0}\",\"('Nd', 'O', 'Re')\",OTHERS,False\nmp-554243,\"{'Si': 6.0, 'O': 12.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1178513,\"{'Ba': 2.0, 'Sn': 2.0, 'O': 6.0}\",\"('Ba', 'O', 'Sn')\",OTHERS,False\nmp-775155,\"{'Li': 12.0, 'Fe': 3.0, 'O': 3.0, 'F': 15.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-773119,\"{'Na': 4.0, 'Mn': 2.0, 'As': 2.0, 'C': 2.0, 'O': 14.0}\",\"('As', 'C', 'Mn', 'Na', 'O')\",OTHERS,False\nmp-30094,\"{'H': 16.0, 'C': 8.0, 'N': 16.0}\",\"('C', 'H', 'N')\",OTHERS,False\nmp-1219720,\"{'Pt': 1.0, 'Se': 1.0, 'S': 1.0}\",\"('Pt', 'S', 'Se')\",OTHERS,False\nmvc-10215,\"{'Ho': 2.0, 'Mn': 4.0, 'Zn': 2.0, 'O': 12.0}\",\"('Ho', 'Mn', 'O', 'Zn')\",OTHERS,False\nmp-763331,\"{'Li': 2.0, 'Mn': 4.0, 'F': 10.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-11417,\"{'Ga': 2.0, 'Tb': 2.0}\",\"('Ga', 'Tb')\",OTHERS,False\nmp-776391,\"{'Li': 4.0, 'Fe': 3.0, 'Co': 3.0, 'Cu': 2.0, 'O': 16.0}\",\"('Co', 'Cu', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-866163,\"{'Y': 1.0, 'In': 1.0, 'Rh': 2.0}\",\"('In', 'Rh', 'Y')\",OTHERS,False\nmp-1208590,\"{'Ta': 1.0, 'In': 1.0, 'Se': 2.0}\",\"('In', 'Se', 'Ta')\",OTHERS,False\nmp-556600,\"{'Cs': 4.0, 'S': 8.0, 'N': 12.0, 'O': 16.0}\",\"('Cs', 'N', 'O', 'S')\",OTHERS,False\nmp-20529,\"{'O': 18.0, 'Na': 2.0, 'Ba': 6.0, 'Ir': 4.0}\",\"('Ba', 'Ir', 'Na', 'O')\",OTHERS,False\nmp-1210859,\"{'Li': 1.0, 'Ti': 1.0, 'S': 2.0, 'O': 1.0}\",\"('Li', 'O', 'S', 'Ti')\",OTHERS,False\nmp-777833,\"{'Fe': 10.0, 'O': 4.0, 'F': 16.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-761192,\"{'Li': 4.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-8066,\"{'Cu': 18.0, 'As': 6.0}\",\"('As', 'Cu')\",OTHERS,False\nmp-1174255,\"{'Li': 6.0, 'Mn': 2.0, 'Co': 2.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-757590,\"{'Li': 8.0, 'Sn': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-29749,\"{'Ni': 10.0, 'Ga': 6.0, 'Ge': 4.0}\",\"('Ga', 'Ge', 'Ni')\",OTHERS,False\nmp-771330,\"{'Mn': 4.0, 'I': 8.0, 'O': 24.0}\",\"('I', 'Mn', 'O')\",OTHERS,False\nmp-1224395,\"{'Hf': 1.0, 'Al': 6.0, 'Fe': 6.0}\",\"('Al', 'Fe', 'Hf')\",OTHERS,False\nmp-1246997,\"{'Nb': 2.0, 'Cr': 6.0, 'Ag': 4.0, 'S': 16.0}\",\"('Ag', 'Cr', 'Nb', 'S')\",OTHERS,False\nmp-1068510,\"{'In': 2.0, 'Te': 3.0}\",\"('In', 'Te')\",OTHERS,False\nmp-1025448,\"{'Y': 4.0, 'Pt': 4.0}\",\"('Pt', 'Y')\",OTHERS,False\nmp-1177560,\"{'Li': 12.0, 'Mn': 4.0, 'V': 4.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1079891,\"{'Ba': 4.0, 'Br': 4.0, 'O': 2.0}\",\"('Ba', 'Br', 'O')\",OTHERS,False\nmp-1039895,\"{'Rb': 1.0, 'Mg': 30.0, 'B': 1.0, 'O': 31.0}\",\"('B', 'Mg', 'O', 'Rb')\",OTHERS,False\nmp-775126,\"{'Mn': 12.0, 'O': 7.0, 'F': 17.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-560939,\"{'Na': 4.0, 'La': 4.0, 'P': 8.0, 'O': 28.0}\",\"('La', 'Na', 'O', 'P')\",OTHERS,False\nmp-743952,\"{'Mo': 8.0, 'H': 12.0, 'C': 16.0, 'O': 32.0}\",\"('C', 'H', 'Mo', 'O')\",OTHERS,False\nmvc-13320,\"{'Sr': 4.0, 'Y': 2.0, 'Cr': 4.0, 'O': 14.0}\",\"('Cr', 'O', 'Sr', 'Y')\",OTHERS,False\nmp-755907,\"{'Co': 8.0, 'O': 4.0, 'F': 12.0}\",\"('Co', 'F', 'O')\",OTHERS,False\nmp-16695,\"{'O': 28.0, 'P': 8.0, 'K': 8.0, 'Zn': 4.0}\",\"('K', 'O', 'P', 'Zn')\",OTHERS,False\nmp-28673,\"{'O': 24.0, 'P': 16.0, 'S': 4.0}\",\"('O', 'P', 'S')\",OTHERS,False\nmp-759278,\"{'Li': 8.0, 'Cu': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-1220225,\"{'Nd': 2.0, 'Cu': 2.0, 'Ag': 2.0}\",\"('Ag', 'Cu', 'Nd')\",OTHERS,False\nmp-504900,\"{'Eu': 2.0, 'Sb': 4.0, 'Pd': 4.0}\",\"('Eu', 'Pd', 'Sb')\",OTHERS,False\nmp-1177698,\"{'Li': 12.0, 'Mn': 8.0, 'P': 16.0, 'O': 56.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-675063,\"{'K': 6.0, 'Ba': 12.0, 'As': 30.0}\",\"('As', 'Ba', 'K')\",OTHERS,False\nmp-608777,\"{'Eu': 2.0, 'In': 4.0, 'As': 4.0}\",\"('As', 'Eu', 'In')\",OTHERS,False\nmp-1200525,\"{'Cs': 4.0, 'Fe': 4.0, 'P': 6.0, 'O': 16.0, 'F': 14.0}\",\"('Cs', 'F', 'Fe', 'O', 'P')\",OTHERS,False\nmp-1076062,\"{'Sr': 7.0, 'Ca': 1.0, 'Fe': 5.0, 'Co': 3.0, 'O': 24.0}\",\"('Ca', 'Co', 'Fe', 'O', 'Sr')\",OTHERS,False\nmp-1096118,\"{'Sc': 1.0, 'Cd': 2.0, 'Ag': 1.0}\",\"('Ag', 'Cd', 'Sc')\",OTHERS,False\nmp-22514,\"{'Mn': 4.0, 'Sn': 2.0}\",\"('Mn', 'Sn')\",OTHERS,False\nmp-1209976,\"{'Nd': 16.0, 'Cd': 4.0, 'Pd': 4.0}\",\"('Cd', 'Nd', 'Pd')\",OTHERS,False\nmp-1226201,\"{'Cu': 7.0, 'Te': 2.0, 'S': 2.0, 'O': 20.0}\",\"('Cu', 'O', 'S', 'Te')\",OTHERS,False\nmp-560322,\"{'K': 4.0, 'Ru': 2.0, 'N': 6.0, 'Cl': 6.0, 'O': 10.0}\",\"('Cl', 'K', 'N', 'O', 'Ru')\",OTHERS,False\nmp-9675,\"{'B': 2.0, 'P': 4.0, 'Cs': 6.0}\",\"('B', 'Cs', 'P')\",OTHERS,False\nmp-1215605,\"{'Yb': 2.0, 'Ag': 2.0, 'Sn': 2.0}\",\"('Ag', 'Sn', 'Yb')\",OTHERS,False\nmp-1078811,\"{'Nb': 4.0, 'Ge': 2.0, 'C': 2.0}\",\"('C', 'Ge', 'Nb')\",OTHERS,False\nmp-14780,\"{'Na': 12.0, 'Mn': 2.0, 'Se': 8.0}\",\"('Mn', 'Na', 'Se')\",OTHERS,False\nmp-1218153,\"{'Sr': 1.0, 'Li': 1.0, 'Al': 1.0, 'Sb': 2.0}\",\"('Al', 'Li', 'Sb', 'Sr')\",OTHERS,False\nmp-540914,\"{'K': 12.0, 'Mn': 4.0, 'O': 12.0}\",\"('K', 'Mn', 'O')\",OTHERS,False\nmp-18099,\"{'F': 20.0, 'Sb': 4.0, 'Ba': 4.0}\",\"('Ba', 'F', 'Sb')\",OTHERS,False\nmp-1201031,\"{'Zn': 4.0, 'As': 8.0, 'S': 16.0, 'O': 32.0, 'F': 48.0}\",\"('As', 'F', 'O', 'S', 'Zn')\",OTHERS,False\nmp-694629,\"{'V': 9.0, 'P': 12.0, 'O': 48.0}\",\"('O', 'P', 'V')\",OTHERS,False\nmp-1224233,\"{'Ho': 3.0, 'Mn': 3.0, 'Ga': 2.0, 'Ge': 1.0}\",\"('Ga', 'Ge', 'Ho', 'Mn')\",OTHERS,False\nmp-1189135,\"{'Dy': 6.0, 'Cu': 6.0, 'Sb': 8.0}\",\"('Cu', 'Dy', 'Sb')\",OTHERS,False\nmp-557482,\"{'Ca': 10.0, 'As': 6.0, 'O': 24.0, 'F': 2.0}\",\"('As', 'Ca', 'F', 'O')\",OTHERS,False\nmp-1027147,\"{'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-1218062,\"{'Ta': 3.0, 'W': 1.0, 'S': 8.0}\",\"('S', 'Ta', 'W')\",OTHERS,False\nmp-1224078,\"{'In': 2.0, 'Fe': 2.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Fe', 'In', 'O')\",OTHERS,False\nmvc-157,\"{'Mg': 1.0, 'W': 4.0, 'O': 8.0}\",\"('Mg', 'O', 'W')\",OTHERS,False\nmp-21416,\"{'Al': 4.0, 'Pu': 2.0}\",\"('Al', 'Pu')\",OTHERS,False\nmp-9842,\"{'C': 4.0, 'O': 12.0, 'Rb': 2.0, 'Sm': 2.0}\",\"('C', 'O', 'Rb', 'Sm')\",OTHERS,False\nmp-16338,\"{'Si': 1.0, 'S': 8.0, 'Ga': 1.0, 'Mo': 4.0}\",\"('Ga', 'Mo', 'S', 'Si')\",OTHERS,False\nmp-568598,\"{'Cu': 2.0, 'Hg': 1.0, 'I': 4.0}\",\"('Cu', 'Hg', 'I')\",OTHERS,False\nmp-1080556,\"{'Eu': 2.0, 'Ni': 2.0, 'Ge': 4.0}\",\"('Eu', 'Ge', 'Ni')\",OTHERS,False\nmp-1034626,\"{'Na': 1.0, 'Mg': 14.0, 'B': 1.0, 'O': 16.0}\",\"('B', 'Mg', 'Na', 'O')\",OTHERS,False\nmp-21833,\"{'P': 24.0, 'Mo': 32.0}\",\"('Mo', 'P')\",OTHERS,False\nmp-540923,\"{'Ba': 12.0, 'Sn': 4.0, 'P': 12.0}\",\"('Ba', 'P', 'Sn')\",OTHERS,False\nmp-1218331,\"{'Sr': 3.0, 'Ca': 1.0, 'Si': 8.0}\",\"('Ca', 'Si', 'Sr')\",OTHERS,False\nmp-1216976,\"{'Tl': 5.0, 'Sb': 10.0, 'As': 3.0, 'S': 22.0}\",\"('As', 'S', 'Sb', 'Tl')\",OTHERS,False\nmp-1214523,\"{'Be': 52.0, 'Mo': 4.0}\",\"('Be', 'Mo')\",OTHERS,False\nmp-779427,\"{'Sm': 4.0, 'V': 4.0, 'O': 14.0}\",\"('O', 'Sm', 'V')\",OTHERS,False\nmp-1193529,\"{'Pr': 2.0, 'Be': 26.0}\",\"('Be', 'Pr')\",OTHERS,False\nmp-1218633,\"{'Sr': 3.0, 'Nb': 2.0, 'Cu': 1.0, 'O': 9.0}\",\"('Cu', 'Nb', 'O', 'Sr')\",OTHERS,False\nmp-30737,\"{'Mg': 3.0, 'Y': 3.0, 'Ag': 3.0}\",\"('Ag', 'Mg', 'Y')\",OTHERS,False\nmp-1178817,\"{'V': 1.0, 'H': 6.0, 'O': 3.0, 'F': 3.0}\",\"('F', 'H', 'O', 'V')\",OTHERS,False\nmp-1111218,\"{'K': 2.0, 'Na': 1.0, 'Y': 1.0, 'Cl': 6.0}\",\"('Cl', 'K', 'Na', 'Y')\",OTHERS,False\nmp-1186111,\"{'Na': 1.0, 'Ac': 1.0, 'In': 2.0}\",\"('Ac', 'In', 'Na')\",OTHERS,False\nmp-753262,\"{'Li': 4.0, 'Co': 2.0, 'Si': 6.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'Si')\",OTHERS,False\nmp-555419,\"{'Te': 12.0, 'As': 8.0, 'C': 6.0, 'N': 6.0, 'F': 48.0}\",\"('As', 'C', 'F', 'N', 'Te')\",OTHERS,False\nmp-23416,\"{'Li': 8.0, 'Cl': 16.0, 'Zn': 4.0}\",\"('Cl', 'Li', 'Zn')\",OTHERS,False\nmp-1212666,\"{'Ga': 5.0, 'Cu': 1.0, 'Se': 8.0}\",\"('Cu', 'Ga', 'Se')\",OTHERS,False\nmp-1246876,\"{'Mg': 2.0, 'Cr': 2.0, 'Ga': 2.0, 'S': 8.0}\",\"('Cr', 'Ga', 'Mg', 'S')\",OTHERS,False\nmp-754558,\"{'Fe': 2.0, 'Ni': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Fe', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1192810,\"{'Mo': 6.0, 'N': 4.0, 'O': 20.0}\",\"('Mo', 'N', 'O')\",OTHERS,False\nmp-1215551,\"{'Yb': 2.0, 'Zn': 2.0, 'Ga': 2.0}\",\"('Ga', 'Yb', 'Zn')\",OTHERS,False\nmp-867186,\"{'Ce': 1.0, 'Zn': 2.0, 'Ag': 1.0}\",\"('Ag', 'Ce', 'Zn')\",OTHERS,False\nmp-1222821,\"{'Li': 1.0, 'Ni': 3.0, 'O': 6.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmp-867688,\"{'Li': 10.0, 'Fe': 2.0, 'P': 8.0, 'O': 28.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1097084,\"{'Fe': 2.0, 'Ir': 1.0, 'Rh': 1.0}\",\"('Fe', 'Ir', 'Rh')\",OTHERS,False\nmp-1112975,\"{'Cs': 3.0, 'Er': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Er')\",OTHERS,False\nmp-754764,\"{'Fe': 4.0, 'O': 4.0, 'F': 4.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-555580,\"{'Sr': 1.0, 'Zr': 4.0, 'P': 6.0, 'O': 24.0}\",\"('O', 'P', 'Sr', 'Zr')\",OTHERS,False\nmp-757526,\"{'Li': 4.0, 'V': 3.0, 'Co': 3.0, 'W': 2.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'V', 'W')\",OTHERS,False\nmp-1220034,\"{'P': 2.0, 'H': 2.0, 'Pb': 2.0, 'O': 8.0}\",\"('H', 'O', 'P', 'Pb')\",OTHERS,False\nmp-29514,\"{'H': 4.0, 'F': 16.0, 'P': 4.0}\",\"('F', 'H', 'P')\",OTHERS,False\nmp-1187049,\"{'Th': 3.0, 'Pb': 1.0}\",\"('Pb', 'Th')\",OTHERS,False\nmp-676121,\"{'Ag': 6.0, 'S': 2.0, 'I': 2.0}\",\"('Ag', 'I', 'S')\",OTHERS,False\nmvc-2200,\"{'Ca': 2.0, 'Mn': 2.0, 'P': 8.0, 'O': 24.0}\",\"('Ca', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1213873,\"{'Ce': 10.0, 'Sn': 6.0, 'Au': 2.0}\",\"('Au', 'Ce', 'Sn')\",OTHERS,False\nmp-1076602,\"{'Sr': 3.0, 'Ca': 5.0, 'Fe': 4.0, 'Co': 4.0, 'O': 24.0}\",\"('Ca', 'Co', 'Fe', 'O', 'Sr')\",OTHERS,False\nmp-764645,\"{'Li': 6.0, 'Mn': 2.0, 'F': 14.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-1193618,\"{'Rb': 8.0, 'Sn': 2.0, 'S': 8.0, 'O': 8.0}\",\"('O', 'Rb', 'S', 'Sn')\",OTHERS,False\nmp-1203867,\"{'Ce': 4.0, 'Co': 20.0, 'P': 12.0}\",\"('Ce', 'Co', 'P')\",OTHERS,False\nmp-1213449,\"{'K': 8.0, 'Te': 4.0, 'Mo': 12.0, 'O': 60.0}\",\"('K', 'Mo', 'O', 'Te')\",OTHERS,False\nmp-17954,\"{'S': 12.0, 'Cu': 6.0, 'Sn': 3.0, 'Ba': 3.0}\",\"('Ba', 'Cu', 'S', 'Sn')\",OTHERS,False\nmp-1211351,\"{'La': 6.0, 'Be': 2.0, 'Al': 2.0, 'S': 14.0}\",\"('Al', 'Be', 'La', 'S')\",OTHERS,False\nmp-1181590,\"{'Mg': 2.0, 'I': 4.0, 'O': 32.0}\",\"('I', 'Mg', 'O')\",OTHERS,False\nmp-1101836,\"{'Gd': 2.0, 'H': 4.0, 'Cl': 2.0, 'O': 4.0}\",\"('Cl', 'Gd', 'H', 'O')\",OTHERS,False\nmp-778822,\"{'Mn': 4.0, 'S': 6.0, 'O': 24.0}\",\"('Mn', 'O', 'S')\",OTHERS,False\nmp-557311,\"{'Sr': 16.0, 'Ge': 8.0, 'O': 32.0}\",\"('Ge', 'O', 'Sr')\",OTHERS,False\nmp-851030,\"{'Li': 8.0, 'Fe': 4.0, 'P': 4.0, 'H': 4.0, 'O': 20.0}\",\"('Fe', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-18685,\"{'S': 12.0, 'Cu': 6.0, 'Ge': 3.0, 'Sr': 3.0}\",\"('Cu', 'Ge', 'S', 'Sr')\",OTHERS,False\nmvc-13442,\"{'Cu': 4.0, 'S': 2.0}\",\"('Cu', 'S')\",OTHERS,False\nmp-1196732,\"{'Rb': 12.0, 'H': 24.0, 'I': 36.0, 'O': 108.0}\",\"('H', 'I', 'O', 'Rb')\",OTHERS,False\nmp-776293,\"{'Na': 8.0, 'Sb': 4.0, 'C': 8.0, 'S': 2.0, 'O': 32.0}\",\"('C', 'Na', 'O', 'S', 'Sb')\",OTHERS,False\nmp-558546,\"{'K': 6.0, 'S': 6.0, 'O': 18.0}\",\"('K', 'O', 'S')\",OTHERS,False\nmp-1199891,\"{'K': 8.0, 'P': 4.0, 'H': 16.0, 'S': 12.0, 'O': 8.0}\",\"('H', 'K', 'O', 'P', 'S')\",OTHERS,False\nmp-556776,\"{'Sr': 4.0, 'P': 8.0, 'O': 24.0}\",\"('O', 'P', 'Sr')\",OTHERS,False\nmp-1114561,\"{'Rb': 2.0, 'Li': 1.0, 'Bi': 1.0, 'Br': 6.0}\",\"('Bi', 'Br', 'Li', 'Rb')\",OTHERS,False\nmp-1193946,\"{'Mn': 4.0, 'Nb': 8.0, 'S': 16.0}\",\"('Mn', 'Nb', 'S')\",OTHERS,False\nmp-1232043,\"{'La': 8.0, 'Mg': 4.0, 'Se': 16.0}\",\"('La', 'Mg', 'Se')\",OTHERS,False\nmp-1097457,\"{'Sr': 2.0, 'Li': 1.0, 'Al': 1.0}\",\"('Al', 'Li', 'Sr')\",OTHERS,False\nmp-570756,\"{'Cs': 3.0, 'Li': 2.0, 'Cl': 5.0}\",\"('Cl', 'Cs', 'Li')\",OTHERS,False\nmp-1080857,\"{'Ce': 16.0, 'Se': 32.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-707788,\"{'Na': 4.0, 'Ca': 4.0, 'B': 20.0, 'H': 40.0, 'O': 56.0}\",\"('B', 'Ca', 'H', 'Na', 'O')\",OTHERS,False\nmp-1215942,\"{'Y': 1.0, 'Sc': 1.0, 'Fe': 4.0}\",\"('Fe', 'Sc', 'Y')\",OTHERS,False\nmp-1225255,\"{'Gd': 2.0, 'Co': 1.0, 'Ni': 3.0}\",\"('Co', 'Gd', 'Ni')\",OTHERS,False\nmp-1192708,\"{'U': 8.0, 'Co': 1.0, 'S': 17.0}\",\"('Co', 'S', 'U')\",OTHERS,False\nmp-1186284,\"{'Nd': 3.0, 'Pa': 1.0}\",\"('Nd', 'Pa')\",OTHERS,False\nmp-1197420,\"{'Mg': 2.0, 'Cr': 2.0, 'H': 44.0, 'O': 30.0}\",\"('Cr', 'H', 'Mg', 'O')\",OTHERS,False\nmp-984806,\"{'Ba': 4.0, 'Pr': 2.0, 'Ru': 2.0, 'O': 12.0}\",\"('Ba', 'O', 'Pr', 'Ru')\",OTHERS,False\nmp-758226,\"{'Cr': 1.0, 'Fe': 3.0, 'Co': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Co', 'Cr', 'Fe', 'O', 'P')\",OTHERS,False\nmp-10577,\"{'N': 20.0, 'Sr': 20.0, 'Nb': 4.0}\",\"('N', 'Nb', 'Sr')\",OTHERS,False\nmp-1033692,\"{'Hf': 1.0, 'Mg': 14.0, 'Cd': 1.0, 'O': 16.0}\",\"('Cd', 'Hf', 'Mg', 'O')\",OTHERS,False\nmp-17756,\"{'S': 12.0, 'Rb': 3.0, 'Ag': 6.0, 'Sb': 3.0}\",\"('Ag', 'Rb', 'S', 'Sb')\",OTHERS,False\nmp-540635,\"{'Ba': 2.0, 'Sn': 2.0, 'Ge': 6.0, 'O': 18.0}\",\"('Ba', 'Ge', 'O', 'Sn')\",OTHERS,False\nmp-567768,\"{'Yb': 2.0, 'Cu': 2.0, 'Ge': 2.0}\",\"('Cu', 'Ge', 'Yb')\",OTHERS,False\nmp-1245612,\"{'Mn': 28.0, 'Si': 4.0, 'N': 24.0}\",\"('Mn', 'N', 'Si')\",OTHERS,False\nmvc-684,\"{'Al': 2.0, 'Cr': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Al', 'Cr', 'O', 'W')\",OTHERS,False\nmp-1211961,\"{'K': 2.0, 'Si': 4.0, 'O': 8.0}\",\"('K', 'O', 'Si')\",OTHERS,False\nmp-28691,\"{'Te': 8.0, 'I': 2.0, 'Ta': 2.0}\",\"('I', 'Ta', 'Te')\",OTHERS,False\nmp-3433,\"{'Mg': 1.0, 'Ni': 4.0, 'Y': 1.0}\",\"('Mg', 'Ni', 'Y')\",OTHERS,False\nmp-30223,\"{'Fe': 4.0, 'I': 2.0, 'La': 4.0}\",\"('Fe', 'I', 'La')\",OTHERS,False\nmp-1218090,\"{'Ta': 3.0, 'Al': 1.0, 'Fe': 8.0}\",\"('Al', 'Fe', 'Ta')\",OTHERS,False\nmp-766351,\"{'Ba': 8.0, 'Ca': 4.0, 'I': 24.0}\",\"('Ba', 'Ca', 'I')\",OTHERS,False\nmp-1246792,\"{'Mg': 4.0, 'Cu': 4.0, 'N': 4.0}\",\"('Cu', 'Mg', 'N')\",OTHERS,False\nmp-1223097,\"{'Li': 16.0, 'H': 8.0, 'N': 8.0}\",\"('H', 'Li', 'N')\",OTHERS,False\nmp-618964,\"{'Ba': 10.0, 'Fe': 8.0, 'S': 22.0}\",\"('Ba', 'Fe', 'S')\",OTHERS,False\nmp-861934,\"{'Ho': 1.0, 'Al': 1.0, 'Ag': 2.0}\",\"('Ag', 'Al', 'Ho')\",OTHERS,False\nmp-1195152,\"{'Ba': 12.0, 'V': 16.0, 'Zn': 4.0, 'O': 56.0}\",\"('Ba', 'O', 'V', 'Zn')\",OTHERS,False\nmvc-3104,\"{'Ba': 2.0, 'Ca': 2.0, 'Tl': 2.0, 'W': 3.0, 'O': 10.0}\",\"('Ba', 'Ca', 'O', 'Tl', 'W')\",OTHERS,False\nmp-31308,\"{'S': 40.0, 'K': 8.0, 'Ta': 8.0}\",\"('K', 'S', 'Ta')\",OTHERS,False\nmp-771914,\"{'Ba': 6.0, 'La': 4.0, 'Cl': 24.0}\",\"('Ba', 'Cl', 'La')\",OTHERS,False\nmp-1016155,\"{'Na': 1.0, 'Mn': 4.0, 'O': 8.0}\",\"('Mn', 'Na', 'O')\",OTHERS,False\nmp-1227871,\"{'Ca': 6.0, 'Cd': 4.0, 'Ga': 8.0}\",\"('Ca', 'Cd', 'Ga')\",OTHERS,False\nmp-675479,\"{'Pu': 2.0, 'Pa': 2.0, 'O': 8.0}\",\"('O', 'Pa', 'Pu')\",OTHERS,False\nmvc-5756,\"{'Ca': 1.0, 'W': 1.0, 'O': 3.0}\",\"('Ca', 'O', 'W')\",OTHERS,False\nmp-7917,\"{'Ge': 2.0, 'Se': 2.0, 'Hf': 2.0}\",\"('Ge', 'Hf', 'Se')\",OTHERS,False\nmvc-16087,\"{'Y': 4.0, 'Ti': 12.0, 'O': 24.0}\",\"('O', 'Ti', 'Y')\",OTHERS,False\nmp-1221205,\"{'Na': 3.0, 'P': 1.0, 'O': 4.0}\",\"('Na', 'O', 'P')\",OTHERS,False\nmp-1212260,\"{'Ho': 6.0, 'Al': 24.0, 'Ru': 8.0}\",\"('Al', 'Ho', 'Ru')\",OTHERS,False\nmp-1181699,\"{'Cl': 2.0, 'O': 6.0}\",\"('Cl', 'O')\",OTHERS,False\nmp-980060,\"{'Tb': 1.0, 'Ag': 3.0}\",\"('Ag', 'Tb')\",OTHERS,False\nmp-1215532,\"{'Zn': 4.0, 'Fe': 1.0, 'Se': 5.0}\",\"('Fe', 'Se', 'Zn')\",OTHERS,False\nmp-1213005,\"{'Er': 4.0, 'Si': 4.0, 'Ni': 4.0}\",\"('Er', 'Ni', 'Si')\",OTHERS,False\nmp-23059,\"{'Cl': 6.0, 'Rb': 2.0, 'Sn': 1.0}\",\"('Cl', 'Rb', 'Sn')\",OTHERS,False\nmp-754334,\"{'Na': 2.0, 'Tm': 2.0, 'O': 4.0}\",\"('Na', 'O', 'Tm')\",OTHERS,False\nmp-1181627,\"{'Cu': 2.0, 'H': 28.0, 'C': 8.0, 'N': 8.0, 'O': 16.0}\",\"('C', 'Cu', 'H', 'N', 'O')\",OTHERS,False\nmp-757010,\"{'Li': 3.0, 'Fe': 1.0, 'Ni': 4.0, 'O': 8.0}\",\"('Fe', 'Li', 'Ni', 'O')\",OTHERS,False\nmvc-6842,\"{'Zn': 4.0, 'Ag': 8.0, 'O': 16.0}\",\"('Ag', 'O', 'Zn')\",OTHERS,False\nmp-1203168,\"{'Sn': 8.0, 'H': 48.0, 'C': 16.0, 'Cl': 8.0, 'O': 4.0}\",\"('C', 'Cl', 'H', 'O', 'Sn')\",OTHERS,False\nmp-1036763,\"{'Mg': 30.0, 'V': 1.0, 'Sn': 1.0, 'O': 32.0}\",\"('Mg', 'O', 'Sn', 'V')\",OTHERS,False\nmp-5622,\"{'P': 2.0, 'Co': 2.0, 'Nd': 1.0}\",\"('Co', 'Nd', 'P')\",OTHERS,False\nmp-568758,\"{'Bi': 8.0, 'Br': 8.0}\",\"('Bi', 'Br')\",OTHERS,False\nmp-1206153,\"{'Eu': 2.0, 'Zr': 1.0, 'O': 4.0}\",\"('Eu', 'O', 'Zr')\",OTHERS,False\nmp-753293,\"{'Li': 4.0, 'Ni': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1006112,\"{'Na': 3.0, 'Co': 1.0}\",\"('Co', 'Na')\",OTHERS,False\nmp-753722,\"{'Li': 1.0, 'Cu': 1.0, 'S': 2.0}\",\"('Cu', 'Li', 'S')\",OTHERS,False\nmp-758573,\"{'H': 16.0, 'Ru': 3.0, 'C': 6.0, 'Cl': 6.0, 'O': 14.0}\",\"('C', 'Cl', 'H', 'O', 'Ru')\",OTHERS,False\nmp-1087537,\"{'Cr': 3.0, 'P': 3.0, 'Pd': 3.0}\",\"('Cr', 'P', 'Pd')\",OTHERS,False\nmp-755178,\"{'Mn': 6.0, 'O': 4.0, 'F': 8.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1094248,\"{'Y': 2.0, 'Sn': 6.0}\",\"('Sn', 'Y')\",OTHERS,False\nmp-675744,\"{'Yb': 8.0, 'Zr': 6.0, 'O': 24.0}\",\"('O', 'Yb', 'Zr')\",OTHERS,False\nmp-1173749,\"{'Na': 8.0, 'Al': 6.0, 'Si': 6.0, 'O': 25.0}\",\"('Al', 'Na', 'O', 'Si')\",OTHERS,False\nmp-568342,\"{'Tb': 2.0, 'Cl': 2.0}\",\"('Cl', 'Tb')\",OTHERS,False\nmp-696457,\"{'Sc': 2.0, 'P': 6.0, 'H': 12.0, 'O': 24.0}\",\"('H', 'O', 'P', 'Sc')\",OTHERS,False\nmp-1105105,\"{'I': 10.0, 'N': 4.0}\",\"('I', 'N')\",OTHERS,False\nmp-776954,\"{'Li': 4.0, 'Mn': 2.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('H', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1208318,\"{'Tb': 4.0, 'Si': 4.0, 'Pt': 8.0}\",\"('Pt', 'Si', 'Tb')\",OTHERS,False\nmp-1094231,\"{'Mg': 2.0, 'Sn': 10.0}\",\"('Mg', 'Sn')\",OTHERS,False\nmp-568031,\"{'Ga': 8.0, 'Hg': 16.0, 'Sb': 8.0, 'Cl': 32.0}\",\"('Cl', 'Ga', 'Hg', 'Sb')\",OTHERS,False\nmp-758669,\"{'Li': 2.0, 'V': 4.0, 'C': 8.0, 'O': 24.0}\",\"('C', 'Li', 'O', 'V')\",OTHERS,False\nmp-554955,\"{'Mg': 1.0, 'Cr': 1.0, 'F': 6.0}\",\"('Cr', 'F', 'Mg')\",OTHERS,False\nmp-772496,\"{'Mn': 3.0, 'Cu': 1.0, 'Ni': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Cu', 'Mn', 'Ni', 'O', 'P')\",OTHERS,False\nmp-676110,\"{'Tb': 14.0, 'Pb': 3.0, 'Se': 24.0}\",\"('Pb', 'Se', 'Tb')\",OTHERS,False\nmp-1247846,\"{'Al': 16.0, 'O': 24.0}\",\"('Al', 'O')\",OTHERS,False\nmp-754649,\"{'Mn': 2.0, 'C': 2.0, 'S': 2.0, 'O': 14.0}\",\"('C', 'Mn', 'O', 'S')\",OTHERS,False\nmp-1099669,\"{'K': 4.0, 'Na': 28.0, 'V': 28.0, 'Mo': 4.0, 'O': 80.0}\",\"('K', 'Mo', 'Na', 'O', 'V')\",OTHERS,False\nmp-1219595,\"{'Rb': 2.0, 'Hg': 2.0, 'Sb': 2.0, 'Te': 6.0}\",\"('Hg', 'Rb', 'Sb', 'Te')\",OTHERS,False\nmp-10179,\"{'Li': 1.0, 'Mg': 1.0, 'Pd': 1.0, 'Sb': 1.0}\",\"('Li', 'Mg', 'Pd', 'Sb')\",OTHERS,False\nmp-1247446,\"{'Sr': 6.0, 'Zr': 6.0, 'N': 10.0}\",\"('N', 'Sr', 'Zr')\",OTHERS,False\nmp-1196501,\"{'Al': 4.0, 'Si': 6.0, 'N': 4.0, 'O': 20.0}\",\"('Al', 'N', 'O', 'Si')\",OTHERS,False\nmp-1073302,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-21653,\"{'Ba': 12.0, 'Ni': 12.0, 'N': 12.0}\",\"('Ba', 'N', 'Ni')\",OTHERS,False\nmp-1218180,\"{'Sr': 1.0, 'Nd': 2.0, 'Fe': 2.0, 'O': 7.0}\",\"('Fe', 'Nd', 'O', 'Sr')\",OTHERS,False\nmp-5170,\"{'Si': 4.0, 'Co': 2.0, 'Nd': 2.0}\",\"('Co', 'Nd', 'Si')\",OTHERS,False\nmp-1025876,\"{'Te': 2.0, 'Mo': 3.0, 'Se': 4.0}\",\"('Mo', 'Se', 'Te')\",OTHERS,False\nmp-1246783,\"{'Hf': 2.0, 'Cr': 2.0, 'Ag': 2.0, 'S': 8.0}\",\"('Ag', 'Cr', 'Hf', 'S')\",OTHERS,False\nmp-767204,\"{'Li': 4.0, 'V': 2.0, 'Si': 12.0, 'O': 30.0}\",\"('Li', 'O', 'Si', 'V')\",OTHERS,False\nmp-1203166,\"{'Er': 4.0, 'Mo': 6.0, 'H': 4.0, 'Se': 4.0, 'O': 34.0}\",\"('Er', 'H', 'Mo', 'O', 'Se')\",OTHERS,False\nmp-669546,\"{'Al': 13.0, 'Pd': 13.0}\",\"('Al', 'Pd')\",OTHERS,False\nmp-554396,\"{'Mg': 4.0, 'Si': 2.0, 'O': 8.0}\",\"('Mg', 'O', 'Si')\",OTHERS,False\nmp-1246732,\"{'Mg': 2.0, 'Co': 2.0, 'W': 2.0, 'S': 8.0}\",\"('Co', 'Mg', 'S', 'W')\",OTHERS,False\nmp-1206309,\"{'Er': 1.0, 'Cr': 2.0, 'Si': 2.0, 'C': 1.0}\",\"('C', 'Cr', 'Er', 'Si')\",OTHERS,False\nmp-976264,\"{'Li': 3.0, 'Nd': 1.0}\",\"('Li', 'Nd')\",OTHERS,False\nmp-974325,\"{'Nd': 2.0, 'Dy': 6.0}\",\"('Dy', 'Nd')\",OTHERS,False\nmp-1022965,\"{'K': 6.0, 'V': 4.0, 'P': 6.0, 'O': 24.0}\",\"('K', 'O', 'P', 'V')\",OTHERS,False\nmp-1194676,\"{'Zn': 2.0, 'H': 48.0, 'Au': 4.0, 'C': 24.0, 'S': 16.0, 'N': 8.0, 'Cl': 8.0}\",\"('Au', 'C', 'Cl', 'H', 'N', 'S', 'Zn')\",OTHERS,False\nmp-20646,\"{'Mn': 2.0, 'Ge': 2.0, 'Sm': 1.0}\",\"('Ge', 'Mn', 'Sm')\",OTHERS,False\nmp-754682,\"{'Li': 2.0, 'Ti': 1.0, 'Co': 3.0, 'O': 8.0}\",\"('Co', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-21903,\"{'S': 8.0, 'K': 2.0, 'Ge': 2.0, 'Eu': 2.0}\",\"('Eu', 'Ge', 'K', 'S')\",OTHERS,False\nmp-756024,\"{'Cr': 2.0, 'Sb': 4.0, 'O': 12.0}\",\"('Cr', 'O', 'Sb')\",OTHERS,False\nmp-865513,\"{'Y': 1.0, 'Sb': 1.0, 'Pd': 2.0}\",\"('Pd', 'Sb', 'Y')\",OTHERS,False\nmp-863426,\"{'Li': 6.0, 'Mn': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1200045,\"{'Bi': 24.0, 'N': 20.0, 'O': 104.0}\",\"('Bi', 'N', 'O')\",OTHERS,False\nmp-29381,\"{'Na': 16.0, 'As': 8.0, 'Te': 16.0}\",\"('As', 'Na', 'Te')\",OTHERS,False\nmp-546152,\"{'O': 4.0, 'Bi': 2.0, 'Sm': 1.0, 'Cl': 1.0}\",\"('Bi', 'Cl', 'O', 'Sm')\",OTHERS,False\nmp-695154,\"{'Na': 7.0, 'Bi': 3.0, 'P': 12.0, 'Pb': 10.0, 'O': 48.0}\",\"('Bi', 'Na', 'O', 'P', 'Pb')\",OTHERS,False\nmp-3200,\"{'O': 14.0, 'Ti': 4.0, 'Lu': 4.0}\",\"('Lu', 'O', 'Ti')\",OTHERS,False\nmp-755104,\"{'Ba': 4.0, 'Y': 2.0, 'Cl': 14.0}\",\"('Ba', 'Cl', 'Y')\",OTHERS,False\nmp-1094629,\"{'Mg': 2.0, 'Ga': 4.0}\",\"('Ga', 'Mg')\",OTHERS,False\nmp-5169,\"{'Cu': 8.0, 'P': 4.0, 'O': 18.0}\",\"('Cu', 'O', 'P')\",OTHERS,False\nmp-40802,\"{'Ba': 1.0, 'Bi': 1.0, 'La': 1.0, 'O': 6.0, 'Sr': 1.0}\",\"('Ba', 'Bi', 'La', 'O', 'Sr')\",OTHERS,False\nmp-1175840,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-30859,\"{'Zr': 9.0, 'Pt': 11.0}\",\"('Pt', 'Zr')\",OTHERS,False\nmvc-8434,\"{'Cr': 4.0, 'Ge': 8.0, 'O': 24.0}\",\"('Cr', 'Ge', 'O')\",OTHERS,False\nmp-1183368,\"{'Ba': 6.0, 'Pr': 2.0}\",\"('Ba', 'Pr')\",OTHERS,False\nmp-1114554,\"{'Tb': 1.0, 'K': 1.0, 'Rb': 2.0, 'Cl': 6.0}\",\"('Cl', 'K', 'Rb', 'Tb')\",OTHERS,False\nmp-1217705,\"{'Tb': 2.0, 'Ge': 3.0}\",\"('Ge', 'Tb')\",OTHERS,False\nmp-1183070,\"{'Ac': 2.0, 'Tl': 1.0, 'Sn': 1.0}\",\"('Ac', 'Sn', 'Tl')\",OTHERS,False\nmp-1207257,\"{'K': 2.0, 'Cd': 1.0, 'Sb': 2.0}\",\"('Cd', 'K', 'Sb')\",OTHERS,False\nmp-1201169,\"{'P': 16.0, 'Se': 12.0, 'Br': 8.0}\",\"('Br', 'P', 'Se')\",OTHERS,False\nmp-777779,\"{'Li': 4.0, 'Mn': 1.0, 'Te': 3.0, 'O': 12.0}\",\"('Li', 'Mn', 'O', 'Te')\",OTHERS,False\nmp-1203277,\"{'K': 12.0, 'Ho': 4.0, 'Si': 12.0, 'O': 40.0}\",\"('Ho', 'K', 'O', 'Si')\",OTHERS,False\nmp-28760,\"{'S': 4.0, 'K': 4.0, 'Rb': 4.0}\",\"('K', 'Rb', 'S')\",OTHERS,False\nmp-1104486,\"{'Tm': 6.0, 'Ge': 8.0}\",\"('Ge', 'Tm')\",OTHERS,False\nmp-866804,\"{'Ti': 1.0, 'Mn': 1.0, 'H': 12.0, 'O': 6.0, 'F': 6.0}\",\"('F', 'H', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-1222497,\"{'Lu': 1.0, 'Al': 8.0, 'Ni': 3.0}\",\"('Al', 'Lu', 'Ni')\",OTHERS,False\nmp-556725,\"{'Cu': 2.0, 'H': 16.0, 'C': 4.0, 'Br': 6.0, 'N': 2.0, 'O': 2.0}\",\"('Br', 'C', 'Cu', 'H', 'N', 'O')\",OTHERS,False\nmp-755170,\"{'Fe': 8.0, 'O': 2.0, 'F': 14.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-510062,\"{'Sm': 2.0, 'Cs': 2.0, 'Cd': 2.0, 'Se': 6.0}\",\"('Cd', 'Cs', 'Se', 'Sm')\",OTHERS,False\nmp-571212,\"{'Yb': 10.0, 'Ag': 6.0}\",\"('Ag', 'Yb')\",OTHERS,False\nmvc-1887,\"{'Ba': 4.0, 'Mg': 2.0, 'Cu': 2.0, 'Sb': 4.0, 'F': 28.0}\",\"('Ba', 'Cu', 'F', 'Mg', 'Sb')\",OTHERS,False\nmp-1219789,\"{'Rb': 4.0, 'Ba': 2.0, 'Cl': 8.0}\",\"('Ba', 'Cl', 'Rb')\",OTHERS,False\nmp-1106192,\"{'Eu': 4.0, 'Zr': 4.0, 'Se': 12.0}\",\"('Eu', 'Se', 'Zr')\",OTHERS,False\nmp-1227727,\"{'Ba': 1.0, 'Sr': 4.0, 'Fe': 5.0, 'O': 15.0}\",\"('Ba', 'Fe', 'O', 'Sr')\",OTHERS,False\nmp-980066,\"{'Sm': 8.0, 'Cu': 12.0, 'As': 12.0}\",\"('As', 'Cu', 'Sm')\",OTHERS,False\nmp-1190681,\"{'Zr': 8.0, 'Fe': 16.0}\",\"('Fe', 'Zr')\",OTHERS,False\nmp-1215652,\"{'Zn': 4.0, 'Cd': 1.0, 'Se': 5.0}\",\"('Cd', 'Se', 'Zn')\",OTHERS,False\nmp-5351,\"{'Ge': 2.0, 'Pd': 2.0, 'Tb': 1.0}\",\"('Ge', 'Pd', 'Tb')\",OTHERS,False\nmp-971911,\"{'Zn': 2.0, 'N': 2.0}\",\"('N', 'Zn')\",OTHERS,False\nmp-1244700,\"{'Cr': 12.0, 'O': 28.0}\",\"('Cr', 'O')\",OTHERS,False\nmp-9194,\"{'O': 2.0, 'Cu': 2.0, 'Se': 2.0, 'Sm': 2.0}\",\"('Cu', 'O', 'Se', 'Sm')\",OTHERS,False\nmp-754161,\"{'Rb': 6.0, 'Ho': 2.0, 'O': 6.0}\",\"('Ho', 'O', 'Rb')\",OTHERS,False\nmp-754801,\"{'Li': 3.0, 'Ti': 6.0, 'O': 13.0}\",\"('Li', 'O', 'Ti')\",OTHERS,False\nmp-1199509,\"{'Mg': 8.0, 'As': 4.0, 'O': 20.0}\",\"('As', 'Mg', 'O')\",OTHERS,False\nmp-698941,\"{'Nd': 10.0, 'Fe': 10.0, 'As': 10.0, 'O': 8.0, 'F': 2.0}\",\"('As', 'F', 'Fe', 'Nd', 'O')\",OTHERS,False\nmp-13925,\"{'F': 6.0, 'Na': 1.0, 'Y': 1.0, 'Cs': 2.0}\",\"('Cs', 'F', 'Na', 'Y')\",OTHERS,False\nmp-1221346,\"{'Na': 4.0, 'Nd': 8.0, 'N': 2.0, 'Cl': 18.0, 'O': 2.0}\",\"('Cl', 'N', 'Na', 'Nd', 'O')\",OTHERS,False\nmp-13196,\"{'O': 16.0, 'Sb': 4.0, 'Sm': 4.0}\",\"('O', 'Sb', 'Sm')\",OTHERS,False\nmp-21170,\"{'K': 4.0, 'Pb': 8.0}\",\"('K', 'Pb')\",OTHERS,False\nmp-570981,\"{'Ce': 2.0, 'Al': 16.0, 'Pt': 9.0}\",\"('Al', 'Ce', 'Pt')\",OTHERS,False\nmp-1132757,\"{'Mg': 2.0, 'V': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Mg', 'O', 'Si', 'V')\",OTHERS,False\nmp-1177267,\"{'Li': 4.0, 'V': 3.0, 'Cu': 1.0, 'P': 4.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-867842,\"{'Sc': 1.0, 'In': 1.0, 'Rh': 2.0}\",\"('In', 'Rh', 'Sc')\",OTHERS,False\nmp-1076669,\"{'La': 7.0, 'Sm': 1.0, 'Mn': 6.0, 'Fe': 2.0, 'O': 24.0}\",\"('Fe', 'La', 'Mn', 'O', 'Sm')\",OTHERS,False\nmp-1174421,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-637194,\"{'Cs': 6.0, 'Sc': 4.0, 'Cl': 18.0}\",\"('Cl', 'Cs', 'Sc')\",OTHERS,False\nmp-31075,\"{'Se': 8.0, 'Br': 8.0, 'Hg': 12.0}\",\"('Br', 'Hg', 'Se')\",OTHERS,False\nmp-1194742,\"{'Ba': 6.0, 'B': 6.0, 'Pb': 4.0, 'Br': 2.0, 'O': 18.0}\",\"('B', 'Ba', 'Br', 'O', 'Pb')\",OTHERS,False\nmp-1097647,\"{'Y': 2.0, 'Pd': 1.0, 'Pt': 1.0}\",\"('Pd', 'Pt', 'Y')\",OTHERS,False\nmp-769605,\"{'Li': 8.0, 'V': 2.0, 'Cr': 6.0, 'O': 16.0}\",\"('Cr', 'Li', 'O', 'V')\",OTHERS,False\nmp-20773,\"{'As': 1.0, 'Pu': 1.0}\",\"('As', 'Pu')\",OTHERS,False\nmp-1225195,\"{'Fe': 2.0, 'C': 6.0, 'N': 6.0, 'O': 4.0}\",\"('C', 'Fe', 'N', 'O')\",OTHERS,False\nmp-30756,\"{'Ru': 8.0, 'Sn': 24.0, 'La': 8.0}\",\"('La', 'Ru', 'Sn')\",OTHERS,False\nmp-1191680,\"{'Ta': 6.0, 'Se': 18.0}\",\"('Se', 'Ta')\",OTHERS,False\nmp-1187021,\"{'Sm': 1.0, 'Mg': 5.0}\",\"('Mg', 'Sm')\",OTHERS,False\nmp-1212458,\"{'Ho': 12.0, 'Mn': 8.0, 'Al': 86.0}\",\"('Al', 'Ho', 'Mn')\",OTHERS,False\nmp-639876,\"{'U': 4.0, 'Sn': 2.0, 'Rh': 4.0}\",\"('Rh', 'Sn', 'U')\",OTHERS,False\nmp-1079393,\"{'Co': 6.0, 'Si': 2.0}\",\"('Co', 'Si')\",OTHERS,False\nmp-569505,\"{'Tb': 2.0, 'Re': 4.0, 'Si': 2.0, 'C': 2.0}\",\"('C', 'Re', 'Si', 'Tb')\",OTHERS,False\nmp-11621,\"{'Ni': 1.0, 'Zn': 1.0, 'Sb': 1.0}\",\"('Ni', 'Sb', 'Zn')\",OTHERS,False\nmp-1204729,\"{'Yb': 12.0, 'Al': 86.0, 'W': 8.0}\",\"('Al', 'W', 'Yb')\",OTHERS,False\nmp-18041,\"{'O': 16.0, 'Sm': 2.0, 'W': 4.0, 'Tl': 2.0}\",\"('O', 'Sm', 'Tl', 'W')\",OTHERS,False\nmp-1245963,\"{'Ba': 2.0, 'Fe': 4.0, 'N': 4.0}\",\"('Ba', 'Fe', 'N')\",OTHERS,False\nmp-1228860,\"{'Ba': 4.0, 'Cr': 13.0, 'O': 28.0}\",\"('Ba', 'Cr', 'O')\",OTHERS,False\nmp-758664,\"{'Fe': 18.0, 'O': 18.0, 'F': 18.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-555837,\"{'Rb': 6.0, 'Si': 10.0, 'O': 23.0}\",\"('O', 'Rb', 'Si')\",OTHERS,False\nmp-1104225,\"{'Lu': 3.0, 'Ga': 9.0, 'Pd': 2.0}\",\"('Ga', 'Lu', 'Pd')\",OTHERS,False\nmp-1203797,\"{'Nd': 26.0, 'B': 8.0, 'O': 52.0}\",\"('B', 'Nd', 'O')\",OTHERS,False\nmp-866873,\"{'Ca': 6.0, 'Sn': 4.0, 'S': 14.0}\",\"('Ca', 'S', 'Sn')\",OTHERS,False\nmp-1018136,\"{'La': 1.0, 'Bi': 1.0, 'Pt': 1.0}\",\"('Bi', 'La', 'Pt')\",OTHERS,False\nmp-1224692,\"{'Fe': 2.0, 'Pt': 1.0}\",\"('Fe', 'Pt')\",OTHERS,False\nmp-20509,\"{'Ba': 2.0, 'Y': 1.0, 'Cu': 4.0, 'O': 8.0}\",\"('Ba', 'Cu', 'O', 'Y')\",OTHERS,False\nmvc-13704,\"{'Zn': 4.0, 'Sb': 2.0, 'Mo': 2.0, 'O': 12.0}\",\"('Mo', 'O', 'Sb', 'Zn')\",OTHERS,False\nmp-778408,\"{'Hg': 2.0, 'Bi': 2.0, 'O': 6.0}\",\"('Bi', 'Hg', 'O')\",OTHERS,False\nmp-771151,\"{'Li': 4.0, 'Mn': 2.0, 'As': 2.0, 'C': 2.0, 'O': 14.0}\",\"('As', 'C', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-973451,\"{'Nd': 2.0, 'Bi': 1.0, 'O': 2.0}\",\"('Bi', 'Nd', 'O')\",OTHERS,False\nmp-768200,\"{'Li': 4.0, 'Ho': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Ho', 'Li', 'O', 'P')\",OTHERS,False\nmp-753777,\"{'Li': 6.0, 'Fe': 1.0, 'Co': 1.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Co', 'Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-3411,\"{'Se': 6.0, 'Mo': 6.0, 'Tl': 2.0}\",\"('Mo', 'Se', 'Tl')\",OTHERS,False\nmp-12174,\"{'Ni': 30.0, 'Hf': 10.0}\",\"('Hf', 'Ni')\",OTHERS,False\nmp-977455,\"{'Pa': 1.0, 'Ag': 1.0, 'O': 3.0}\",\"('Ag', 'O', 'Pa')\",OTHERS,False\nmp-1181167,\"{'Na': 8.0, 'B': 16.0, 'O': 44.0}\",\"('B', 'Na', 'O')\",OTHERS,False\nmp-10872,\"{'Al': 1.0, 'Hf': 1.0, 'Au': 2.0}\",\"('Al', 'Au', 'Hf')\",OTHERS,False\nmp-755125,\"{'Li': 2.0, 'Mn': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1099332,\"{'Sr': 1.0, 'Ce': 1.0, 'Mg': 6.0}\",\"('Ce', 'Mg', 'Sr')\",OTHERS,False\nmp-1103088,\"{'Dy': 3.0, 'Al': 9.0}\",\"('Al', 'Dy')\",OTHERS,False\nmp-760954,\"{'Li': 5.0, 'Ti': 2.0, 'V': 3.0, 'O': 10.0}\",\"('Li', 'O', 'Ti', 'V')\",OTHERS,False\nmp-1180456,\"{'Li': 3.0, 'V': 3.0, 'O': 6.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1094709,\"{'Mg': 3.0, 'Sb': 1.0}\",\"('Mg', 'Sb')\",OTHERS,False\nmp-22461,\"{'Fe': 3.0, 'Sn': 1.0}\",\"('Fe', 'Sn')\",OTHERS,False\nmp-1095709,\"{'Tc': 2.0, 'Ge': 1.0, 'W': 1.0}\",\"('Ge', 'Tc', 'W')\",OTHERS,False\nmp-773100,\"{'La': 4.0, 'Bi': 2.0, 'O': 10.0}\",\"('Bi', 'La', 'O')\",OTHERS,False\nmp-1214654,\"{'Ba': 4.0, 'La': 2.0, 'Nb': 2.0, 'Cu': 4.0, 'O': 16.0}\",\"('Ba', 'Cu', 'La', 'Nb', 'O')\",OTHERS,False\nmp-1184074,\"{'Dy': 1.0, 'Tm': 1.0, 'Ru': 2.0}\",\"('Dy', 'Ru', 'Tm')\",OTHERS,False\nmp-1221048,\"{'Na': 2.0, 'Li': 2.0, 'V': 4.0, 'O': 12.0}\",\"('Li', 'Na', 'O', 'V')\",OTHERS,False\nmp-1215695,\"{'Zn': 6.0, 'Ga': 2.0, 'Ag': 2.0, 'S': 10.0}\",\"('Ag', 'Ga', 'S', 'Zn')\",OTHERS,False\nmp-1207493,\"{'Yb': 4.0, 'Si': 4.0, 'Pd': 4.0}\",\"('Pd', 'Si', 'Yb')\",OTHERS,False\nmp-1210775,\"{'Lu': 4.0, 'O': 4.0, 'F': 4.0}\",\"('F', 'Lu', 'O')\",OTHERS,False\nmp-23626,\"{'Rb': 4.0, 'Li': 8.0, 'I': 12.0, 'O': 36.0}\",\"('I', 'Li', 'O', 'Rb')\",OTHERS,False\nmp-722891,\"{'Na': 4.0, 'Ni': 2.0, 'H': 28.0, 'N': 12.0}\",\"('H', 'N', 'Na', 'Ni')\",OTHERS,False\nmp-1226724,\"{'Cd': 1.0, 'Sb': 1.0}\",\"('Cd', 'Sb')\",OTHERS,False\nmp-1245570,\"{'Mn': 16.0, 'Se': 12.0, 'N': 8.0}\",\"('Mn', 'N', 'Se')\",OTHERS,False\nmp-25827,\"{'Li': 2.0, 'O': 22.0, 'P': 6.0, 'Mo': 4.0}\",\"('Li', 'Mo', 'O', 'P')\",OTHERS,False\nmp-1184919,\"{'K': 6.0, 'Na': 2.0}\",\"('K', 'Na')\",OTHERS,False\nmp-540619,\"{'K': 12.0, 'Sn': 4.0, 'Te': 12.0}\",\"('K', 'Sn', 'Te')\",OTHERS,False\nmp-768960,\"{'Li': 40.0, 'B': 8.0, 'O': 32.0}\",\"('B', 'Li', 'O')\",OTHERS,False\nmp-1221608,\"{'Mo': 6.0, 'Pb': 1.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'Pb', 'S', 'Se')\",OTHERS,False\nmp-1173753,\"{'Na': 4.0, 'Ga': 4.0, 'Se': 6.0}\",\"('Ga', 'Na', 'Se')\",OTHERS,False\nAl 66.6 Rh 26.1 Si 7.3,\"{'Al': 66.6, 'Rh': 26.1, 'Si': 7.3}\",\"('Al', 'Rh', 'Si')\",AC,False\nmp-1186717,\"{'Pr': 3.0, 'Hf': 1.0}\",\"('Hf', 'Pr')\",OTHERS,False\nmp-1120736,\"{'Na': 10.0, 'Ti': 6.0, 'F': 28.0}\",\"('F', 'Na', 'Ti')\",OTHERS,False\nmp-1217173,\"{'Ti': 16.0, 'Mn': 8.0, 'O': 4.0}\",\"('Mn', 'O', 'Ti')\",OTHERS,False\nmp-28513,\"{'O': 12.0, 'Cl': 4.0, 'Pb': 2.0}\",\"('Cl', 'O', 'Pb')\",OTHERS,False\nmp-1179787,\"{'Rb': 1.0, 'Cd': 6.0, 'C': 12.0, 'Br': 1.0, 'O': 26.0}\",\"('Br', 'C', 'Cd', 'O', 'Rb')\",OTHERS,False\nmp-1206284,\"{'La': 2.0, 'C': 2.0, 'Br': 2.0}\",\"('Br', 'C', 'La')\",OTHERS,False\nmvc-13426,\"{'Ca': 1.0, 'Cu': 2.0, 'N': 2.0}\",\"('Ca', 'Cu', 'N')\",OTHERS,False\nmp-1095427,\"{'Hf': 4.0, 'Co': 4.0, 'P': 4.0}\",\"('Co', 'Hf', 'P')\",OTHERS,False\nmp-556346,\"{'Pr': 4.0, 'I': 12.0, 'O': 36.0}\",\"('I', 'O', 'Pr')\",OTHERS,False\nmp-1225036,\"{'Gd': 1.0, 'Al': 6.0, 'Cu': 6.0}\",\"('Al', 'Cu', 'Gd')\",OTHERS,False\nmp-15796,\"{'Li': 1.0, 'Se': 2.0, 'Ho': 1.0}\",\"('Ho', 'Li', 'Se')\",OTHERS,False\nmp-1105352,\"{'Ce': 1.0, 'Fe': 4.0, 'Cu': 3.0, 'O': 12.0}\",\"('Ce', 'Cu', 'Fe', 'O')\",OTHERS,False\nmp-1247144,\"{'La': 2.0, 'Mg': 2.0, 'Mo': 2.0, 'S': 8.0}\",\"('La', 'Mg', 'Mo', 'S')\",OTHERS,False\nmp-762249,\"{'V': 2.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'O', 'V')\",OTHERS,False\nmp-775938,\"{'Ti': 12.0, 'O': 24.0}\",\"('O', 'Ti')\",OTHERS,False\nmp-765521,\"{'Li': 4.0, 'V': 4.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-1232150,\"{'Mg': 4.0, 'Sc': 4.0, 'Se': 12.0}\",\"('Mg', 'Sc', 'Se')\",OTHERS,False\nmp-560262,\"{'Zn': 2.0, 'In': 4.0, 'S': 8.0}\",\"('In', 'S', 'Zn')\",OTHERS,False\nmp-867247,\"{'Tb': 2.0, 'Br': 6.0}\",\"('Br', 'Tb')\",OTHERS,False\nmp-765086,\"{'Li': 10.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1186042,\"{'Na': 6.0, 'Ca': 2.0}\",\"('Ca', 'Na')\",OTHERS,False\nmp-1217247,\"{'Ti': 16.0, 'Co': 4.0, 'Ni': 4.0}\",\"('Co', 'Ni', 'Ti')\",OTHERS,False\nmp-1017629,\"{'Mg': 1.0, 'Ni': 1.0, 'H': 3.0}\",\"('H', 'Mg', 'Ni')\",OTHERS,False\nmp-1190932,\"{'Co': 3.0, 'Te': 2.0, 'P': 2.0, 'O': 14.0}\",\"('Co', 'O', 'P', 'Te')\",OTHERS,False\nmp-1239190,\"{'Ta': 2.0, 'Cr': 6.0, 'Ag': 4.0, 'S': 16.0}\",\"('Ag', 'Cr', 'S', 'Ta')\",OTHERS,False\nmp-1205523,\"{'Sc': 4.0, 'Co': 2.0, 'Ge': 4.0}\",\"('Co', 'Ge', 'Sc')\",OTHERS,False\nmp-1206590,\"{'Co': 1.0, 'Au': 3.0}\",\"('Au', 'Co')\",OTHERS,False\nmp-36577,\"{'As': 2.0, 'S': 4.0, 'Sr': 1.0}\",\"('As', 'S', 'Sr')\",OTHERS,False\nmp-1037480,\"{'Y': 1.0, 'Mg': 30.0, 'Cr': 1.0, 'O': 32.0}\",\"('Cr', 'Mg', 'O', 'Y')\",OTHERS,False\nmp-1100897,\"{'Y': 2.0, 'Zr': 8.0, 'O': 19.0}\",\"('O', 'Y', 'Zr')\",OTHERS,False\nmp-8885,\"{'S': 8.0, 'Cd': 4.0, 'Ba': 4.0}\",\"('Ba', 'Cd', 'S')\",OTHERS,False\nmp-1097227,\"{'Sr': 2.0, 'Hg': 1.0, 'Sb': 1.0}\",\"('Hg', 'Sb', 'Sr')\",OTHERS,False\nmp-1220301,\"{'Nb': 2.0, 'Tl': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Nb', 'O', 'Tl', 'W')\",OTHERS,False\nmp-757780,\"{'Li': 24.0, 'Co': 24.0, 'P': 24.0, 'O': 96.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,False\nmp-1188749,\"{'Tb': 4.0, 'Ga': 4.0, 'Pd': 8.0}\",\"('Ga', 'Pd', 'Tb')\",OTHERS,False\nmp-1218281,\"{'Sr': 1.0, 'Eu': 1.0, 'Ni': 1.0, 'O': 4.0}\",\"('Eu', 'Ni', 'O', 'Sr')\",OTHERS,False\nmp-1076317,\"{'Mg': 1.0, 'Cu': 1.0, 'O': 3.0}\",\"('Cu', 'Mg', 'O')\",OTHERS,False\nmp-1214856,\"{'Al': 4.0, 'S': 4.0, 'N': 4.0, 'Cl': 12.0}\",\"('Al', 'Cl', 'N', 'S')\",OTHERS,False\nmp-722280,\"{'Li': 4.0, 'Cu': 4.0, 'H': 16.0, 'Cl': 12.0, 'O': 8.0}\",\"('Cl', 'Cu', 'H', 'Li', 'O')\",OTHERS,False\nmp-1176501,\"{'Lu': 2.0, 'Bi': 2.0, 'O': 6.0}\",\"('Bi', 'Lu', 'O')\",OTHERS,False\nmp-1181934,\"{'Mg': 2.0, 'H': 32.0, 'C': 8.0, 'S': 8.0, 'N': 4.0, 'O': 32.0, 'F': 24.0}\",\"('C', 'F', 'H', 'Mg', 'N', 'O', 'S')\",OTHERS,False\nmp-1018064,\"{'Er': 1.0, 'Fe': 1.0, 'C': 2.0}\",\"('C', 'Er', 'Fe')\",OTHERS,False\nmp-1245216,\"{'Zn': 50.0, 'S': 50.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-1202863,\"{'Na': 8.0, 'Mg': 8.0, 'P': 8.0, 'C': 16.0, 'O': 48.0}\",\"('C', 'Mg', 'Na', 'O', 'P')\",OTHERS,False\nmp-767927,\"{'Li': 8.0, 'Ti': 2.0, 'V': 8.0, 'Cr': 8.0, 'O': 36.0}\",\"('Cr', 'Li', 'O', 'Ti', 'V')\",OTHERS,False\nmp-18825,\"{'Y': 2.0, 'Cr': 2.0, 'O': 8.0}\",\"('Cr', 'O', 'Y')\",OTHERS,False\nmp-8073,\"{'As': 4.0, 'Pd': 8.0}\",\"('As', 'Pd')\",OTHERS,False\nmp-27568,\"{'Al': 6.0, 'Ge': 14.0, 'Ba': 20.0}\",\"('Al', 'Ba', 'Ge')\",OTHERS,False\nmp-1201050,\"{'Sm': 4.0, 'Nb': 4.0, 'S': 14.0, 'O': 60.0}\",\"('Nb', 'O', 'S', 'Sm')\",OTHERS,False\nmp-1219618,\"{'Rb': 4.0, 'H': 16.0, 'O': 12.0}\",\"('H', 'O', 'Rb')\",OTHERS,False\nmp-1181620,\"{'Co': 1.0, 'I': 2.0, 'O': 6.0}\",\"('Co', 'I', 'O')\",OTHERS,False\nmp-1190024,\"{'Ba': 6.0, 'Na': 2.0, 'Sb': 2.0, 'O': 12.0}\",\"('Ba', 'Na', 'O', 'Sb')\",OTHERS,False\nmp-1102309,\"{'Yb': 8.0, 'Ga': 4.0}\",\"('Ga', 'Yb')\",OTHERS,False\nmp-780850,\"{'Li': 6.0, 'Mn': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1174348,\"{'Li': 8.0, 'Mn': 6.0, 'O': 14.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-755848,\"{'Li': 6.0, 'Cr': 3.0, 'Fe': 3.0, 'O': 12.0}\",\"('Cr', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1246916,\"{'Mg': 2.0, 'Ni': 10.0, 'N': 8.0}\",\"('Mg', 'N', 'Ni')\",OTHERS,False\nmp-1246348,\"{'Fe': 3.0, 'Co': 8.0, 'N': 8.0}\",\"('Co', 'Fe', 'N')\",OTHERS,False\nmp-1227523,\"{'Ce': 4.0, 'U': 8.0, 'S': 20.0}\",\"('Ce', 'S', 'U')\",OTHERS,False\nmp-1221600,\"{'Mn': 2.0, 'Re': 2.0, 'B': 4.0}\",\"('B', 'Mn', 'Re')\",OTHERS,False\nAl 67 Pd 11 Mn 14 Si 7,\"{'Al': 67.0, 'Pd': 11.0, 'Mn': 14.0, 'Si': 7.0}\",\"('Al', 'Mn', 'Pd', 'Si')\",AC,False\nmp-1206101,\"{'Ag': 1.0, 'Pb': 1.0, 'F': 6.0}\",\"('Ag', 'F', 'Pb')\",OTHERS,False\nmp-3627,\"{'S': 8.0, 'Mo': 6.0, 'Eu': 1.0}\",\"('Eu', 'Mo', 'S')\",OTHERS,False\nmp-1101817,\"{'Sm': 4.0, 'Ni': 4.0, 'Ge': 4.0}\",\"('Ge', 'Ni', 'Sm')\",OTHERS,False\nmp-757453,\"{'Fe': 6.0, 'O': 6.0, 'F': 6.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1009494,\"{'Np': 1.0, 'N': 1.0}\",\"('N', 'Np')\",OTHERS,False\nmp-1208255,\"{'Th': 2.0, 'N': 8.0, 'O': 34.0}\",\"('N', 'O', 'Th')\",OTHERS,False\nmp-1246406,\"{'Mg': 2.0, 'V': 1.0, 'Mo': 3.0, 'S': 8.0}\",\"('Mg', 'Mo', 'S', 'V')\",OTHERS,False\nmp-1187388,\"{'Tb': 1.0, 'Tm': 1.0, 'Ir': 2.0}\",\"('Ir', 'Tb', 'Tm')\",OTHERS,False\nmp-1080058,\"{'K': 2.0, 'I': 2.0, 'O': 6.0}\",\"('I', 'K', 'O')\",OTHERS,False\nmp-756968,\"{'K': 6.0, 'Ca': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Ca', 'K', 'O', 'P')\",OTHERS,False\nmp-864661,\"{'Zn': 1.0, 'Cu': 1.0, 'Pd': 2.0}\",\"('Cu', 'Pd', 'Zn')\",OTHERS,False\nmp-761143,\"{'K': 3.0, 'Li': 3.0, 'Sb': 3.0, 'P': 6.0, 'O': 24.0}\",\"('K', 'Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1225300,\"{'Dy': 2.0, 'Al': 3.0, 'Co': 1.0}\",\"('Al', 'Co', 'Dy')\",OTHERS,False\nmp-1213415,\"{'Cu': 6.0, 'Hg': 18.0, 'As': 12.0, 'Cl': 18.0}\",\"('As', 'Cl', 'Cu', 'Hg')\",OTHERS,False\nmp-1187213,\"{'Ta': 2.0, 'Re': 1.0, 'Os': 1.0}\",\"('Os', 'Re', 'Ta')\",OTHERS,False\nmp-6407,\"{'F': 160.0, 'Se': 32.0, 'Sb': 32.0, 'Te': 16.0}\",\"('F', 'Sb', 'Se', 'Te')\",OTHERS,False\nmp-29419,\"{'Cl': 6.0, 'Te': 4.0, 'Hf': 1.0}\",\"('Cl', 'Hf', 'Te')\",OTHERS,False\nmp-1198750,\"{'Mg': 2.0, 'H': 44.0, 'S': 2.0, 'O': 30.0}\",\"('H', 'Mg', 'O', 'S')\",OTHERS,False\nmp-555732,\"{'Yb': 8.0, 'P': 8.0, 'S': 32.0}\",\"('P', 'S', 'Yb')\",OTHERS,False\nmp-505647,\"{'Gd': 2.0, 'W': 4.0, 'K': 2.0, 'O': 16.0}\",\"('Gd', 'K', 'O', 'W')\",OTHERS,False\nmp-1208134,\"{'Tl': 1.0, 'Cu': 2.0, 'H': 1.0, 'Se': 2.0, 'O': 10.0}\",\"('Cu', 'H', 'O', 'Se', 'Tl')\",OTHERS,False\nmp-581156,\"{'Cs': 14.0, 'U': 16.0, 'V': 4.0, 'Cl': 2.0, 'O': 64.0}\",\"('Cl', 'Cs', 'O', 'U', 'V')\",OTHERS,False\nmp-1096373,\"{'Mg': 1.0, 'Sc': 1.0, 'Tl': 2.0}\",\"('Mg', 'Sc', 'Tl')\",OTHERS,False\nmp-1245419,\"{'Li': 12.0, 'Mn': 4.0, 'N': 8.0}\",\"('Li', 'Mn', 'N')\",OTHERS,False\nmp-758457,\"{'Li': 4.0, 'Ti': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Li', 'O', 'P', 'Ti')\",OTHERS,False\nmp-505186,\"{'Cs': 8.0, 'Pr': 12.0, 'I': 26.0, 'C': 4.0}\",\"('C', 'Cs', 'I', 'Pr')\",OTHERS,False\nmp-1119132,\"{'Cs': 20.0, 'Os': 20.0, 'N': 40.0}\",\"('Cs', 'N', 'Os')\",OTHERS,False\nmp-567076,\"{'Li': 2.0, 'Bi': 1.0, 'Au': 1.0}\",\"('Au', 'Bi', 'Li')\",OTHERS,False\nmp-983229,\"{'Pm': 2.0, 'Zn': 1.0, 'Rh': 1.0}\",\"('Pm', 'Rh', 'Zn')\",OTHERS,False\nmp-604910,\"{'Mn': 2.0, 'Se': 2.0}\",\"('Mn', 'Se')\",OTHERS,False\nmp-766086,\"{'Li': 4.0, 'La': 8.0, 'Ti': 8.0, 'Cr': 4.0, 'O': 36.0}\",\"('Cr', 'La', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-1192303,\"{'Pr': 2.0, 'Mn': 3.0, 'Sb': 4.0, 'S': 12.0}\",\"('Mn', 'Pr', 'S', 'Sb')\",OTHERS,False\nmp-561125,\"{'Ba': 10.0, 'P': 6.0, 'Br': 2.0, 'O': 24.0}\",\"('Ba', 'Br', 'O', 'P')\",OTHERS,False\nmp-1114171,\"{'K': 2.0, 'Na': 1.0, 'Ru': 1.0, 'F': 6.0}\",\"('F', 'K', 'Na', 'Ru')\",OTHERS,False\nmp-558557,\"{'Ba': 1.0, 'La': 4.0, 'Cu': 5.0, 'O': 12.0}\",\"('Ba', 'Cu', 'La', 'O')\",OTHERS,False\nmp-759528,\"{'Li': 3.0, 'V': 3.0, 'Fe': 3.0, 'P': 6.0, 'H': 6.0, 'O': 30.0}\",\"('Fe', 'H', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-8632,{'V': 1.0},\"('V',)\",OTHERS,False\nmp-1224665,\"{'Lu': 12.0, 'Co': 31.0, 'Sn': 16.0}\",\"('Co', 'Lu', 'Sn')\",OTHERS,False\nmp-753508,\"{'Li': 4.0, 'Cu': 4.0, 'S': 4.0}\",\"('Cu', 'Li', 'S')\",OTHERS,False\nmp-7739,\"{'F': 6.0, 'Zn': 1.0, 'Ba': 2.0}\",\"('Ba', 'F', 'Zn')\",OTHERS,False\nmp-1194394,\"{'Na': 6.0, 'C': 4.0, 'O': 16.0}\",\"('C', 'Na', 'O')\",OTHERS,False\nmp-705355,\"{'Li': 4.0, 'Mn': 2.0, 'P': 10.0, 'O': 30.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1206453,\"{'Sm': 4.0, 'Cd': 2.0, 'Cu': 4.0}\",\"('Cd', 'Cu', 'Sm')\",OTHERS,False\nmp-1213807,\"{'Ce': 8.0, 'Si': 8.0, 'Pd': 8.0}\",\"('Ce', 'Pd', 'Si')\",OTHERS,False\nmp-978929,\"{'Sr': 1.0, 'Ac': 1.0, 'Zn': 2.0}\",\"('Ac', 'Sr', 'Zn')\",OTHERS,False\nmp-555331,\"{'K': 2.0, 'Gd': 2.0, 'Pd': 2.0, 'O': 6.0}\",\"('Gd', 'K', 'O', 'Pd')\",OTHERS,False\nmp-1210918,\"{'Mg': 12.0, 'Si': 8.0, 'O': 36.0}\",\"('Mg', 'O', 'Si')\",OTHERS,False\nmp-14568,\"{'F': 8.0, 'Mg': 2.0, 'Ba': 2.0}\",\"('Ba', 'F', 'Mg')\",OTHERS,False\nmp-567808,\"{'Tm': 1.0, 'Cu': 2.0, 'Ge': 2.0}\",\"('Cu', 'Ge', 'Tm')\",OTHERS,False\nmp-758847,\"{'Li': 12.0, 'Fe': 4.0, 'P': 8.0, 'O': 32.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1232213,\"{'Y': 2.0, 'Se': 4.0}\",\"('Se', 'Y')\",OTHERS,False\nmp-1197266,\"{'Nd': 14.0, 'Se': 8.0, 'Cl': 6.0, 'O': 34.0}\",\"('Cl', 'Nd', 'O', 'Se')\",OTHERS,False\nmp-1218397,\"{'Sr': 5.0, 'Zn': 1.0, 'Cd': 4.0}\",\"('Cd', 'Sr', 'Zn')\",OTHERS,False\nmp-30313,\"{'O': 28.0, 'Se': 8.0, 'Tb': 8.0}\",\"('O', 'Se', 'Tb')\",OTHERS,False\nmp-1018651,\"{'Ba': 2.0, 'H': 3.0, 'I': 1.0}\",\"('Ba', 'H', 'I')\",OTHERS,False\nmp-31362,\"{'Na': 6.0, 'Cl': 12.0, 'Y': 2.0}\",\"('Cl', 'Na', 'Y')\",OTHERS,False\nmp-27421,\"{'F': 6.0, 'Rb': 1.0, 'Bi': 1.0}\",\"('Bi', 'F', 'Rb')\",OTHERS,False\nmp-17048,\"{'S': 16.0, 'Rb': 8.0, 'W': 4.0}\",\"('Rb', 'S', 'W')\",OTHERS,False\nmp-849672,\"{'Mn': 12.0, 'O': 2.0, 'F': 22.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-866308,\"{'Ca': 4.0, 'B': 8.0, 'H': 56.0, 'N': 8.0}\",\"('B', 'Ca', 'H', 'N')\",OTHERS,False\nmp-600219,\"{'Mn': 4.0, 'H': 48.0, 'C': 8.0, 'N': 8.0, 'Cl': 16.0}\",\"('C', 'Cl', 'H', 'Mn', 'N')\",OTHERS,False\nmp-21298,\"{'Si': 4.0, 'Np': 2.0}\",\"('Np', 'Si')\",OTHERS,False\nmvc-5849,\"{'Ca': 6.0, 'Mn': 12.0, 'O': 24.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,False\nmp-1094476,\"{'Mg': 2.0, 'Zn': 6.0}\",\"('Mg', 'Zn')\",OTHERS,False\nmp-867721,\"{'Mn': 6.0, 'Si': 6.0, 'O': 20.0}\",\"('Mn', 'O', 'Si')\",OTHERS,False\nmp-753711,\"{'Ca': 3.0, 'P': 2.0, 'O': 8.0}\",\"('Ca', 'O', 'P')\",OTHERS,False\nmp-554311,\"{'F': 6.0, 'Cr': 1.0, 'Rb': 1.0}\",\"('Cr', 'F', 'Rb')\",OTHERS,False\nmp-1228510,\"{'Ba': 2.0, 'Sr': 3.0, 'Ca': 1.0, 'Mg': 2.0, 'Si': 4.0, 'O': 16.0}\",\"('Ba', 'Ca', 'Mg', 'O', 'Si', 'Sr')\",OTHERS,False\nmp-773098,\"{'Li': 4.0, 'Mn': 3.0, 'V': 1.0, 'O': 8.0}\",\"('Li', 'Mn', 'O', 'V')\",OTHERS,False\nmp-867634,\"{'Li': 8.0, 'Mn': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-975031,\"{'Rb': 4.0, 'Be': 4.0, 'H': 12.0}\",\"('Be', 'H', 'Rb')\",OTHERS,False\nmp-1245220,\"{'Zn': 50.0, 'S': 50.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-30328,\"{'Fe': 1.0, 'Ho': 6.0, 'Bi': 2.0}\",\"('Bi', 'Fe', 'Ho')\",OTHERS,False\nmp-1077378,\"{'Cs': 2.0, 'Mn': 2.0, 'P': 2.0}\",\"('Cs', 'Mn', 'P')\",OTHERS,False\nmp-758284,\"{'Zn': 4.0, 'P': 8.0, 'H': 28.0, 'N': 4.0, 'O': 32.0}\",\"('H', 'N', 'O', 'P', 'Zn')\",OTHERS,False\nmp-1099865,\"{'La': 28.0, 'Sm': 4.0, 'Mn': 32.0, 'O': 80.0}\",\"('La', 'Mn', 'O', 'Sm')\",OTHERS,False\nmp-1187703,\"{'Y': 2.0, 'Ir': 1.0, 'Ru': 1.0}\",\"('Ir', 'Ru', 'Y')\",OTHERS,False\nmp-20720,\"{'N': 6.0, 'O': 12.0, 'Ni': 1.0, 'Pb': 2.0}\",\"('N', 'Ni', 'O', 'Pb')\",OTHERS,False\nmp-1186262,\"{'Nd': 3.0, 'Dy': 1.0}\",\"('Dy', 'Nd')\",OTHERS,False\nmp-1200604,\"{'Si': 1.0, 'P': 4.0, 'H': 28.0, 'C': 10.0, 'Cl': 4.0}\",\"('C', 'Cl', 'H', 'P', 'Si')\",OTHERS,False\nmp-1176406,\"{'Na': 8.0, 'Bi': 4.0, 'O': 12.0}\",\"('Bi', 'Na', 'O')\",OTHERS,False\nmp-767798,\"{'Ni': 17.0, 'As': 12.0, 'O': 48.0}\",\"('As', 'Ni', 'O')\",OTHERS,False\nmp-756058,\"{'Li': 2.0, 'Cr': 3.0, 'Fe': 1.0, 'O': 8.0}\",\"('Cr', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1175878,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1175965,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1072586,\"{'Sm': 1.0, 'Cd': 1.0, 'Ni': 4.0}\",\"('Cd', 'Ni', 'Sm')\",OTHERS,False\nmp-1039919,\"{'La': 1.0, 'Hf': 1.0, 'Mg': 30.0, 'O': 32.0}\",\"('Hf', 'La', 'Mg', 'O')\",OTHERS,False\nmp-756748,\"{'Sc': 4.0, 'H': 12.0, 'Cl': 8.0, 'O': 40.0}\",\"('Cl', 'H', 'O', 'Sc')\",OTHERS,False\nmp-758780,\"{'Li': 4.0, 'Bi': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Bi', 'Li', 'O', 'P')\",OTHERS,False\nmp-1101069,\"{'Cr': 2.0, 'P': 2.0, 'Se': 6.0}\",\"('Cr', 'P', 'Se')\",OTHERS,False\nmp-1227088,\"{'Ca': 6.0, 'Ag': 3.0, 'Ge': 5.0}\",\"('Ag', 'Ca', 'Ge')\",OTHERS,False\nmp-759159,\"{'Li': 5.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1095204,\"{'Tm': 4.0, 'Ni': 4.0, 'Sn': 2.0}\",\"('Ni', 'Sn', 'Tm')\",OTHERS,False\nmp-1220795,\"{'Nb': 12.0, 'Sn': 3.0, 'Sb': 1.0}\",\"('Nb', 'Sb', 'Sn')\",OTHERS,False\nZn 61.4 Mg 24.5 Er 14.1,\"{'Zn': 61.4, 'Mg': 24.5, 'Er': 14.1}\",\"('Er', 'Mg', 'Zn')\",AC,False\nmp-862965,\"{'Pm': 1.0, 'Tl': 1.0, 'Au': 2.0}\",\"('Au', 'Pm', 'Tl')\",OTHERS,False\nmp-27617,\"{'F': 4.0, 'Se': 1.0, 'Ce': 2.0}\",\"('Ce', 'F', 'Se')\",OTHERS,False\nmp-641587,\"{'Fe': 21.0, 'Mo': 2.0, 'C': 6.0}\",\"('C', 'Fe', 'Mo')\",OTHERS,False\nmp-641924,\"{'Bi': 8.0, 'Pb': 4.0, 'S': 16.0}\",\"('Bi', 'Pb', 'S')\",OTHERS,False\nmp-1225439,\"{'Fe': 2.0, 'Ni': 6.0, 'Mo': 12.0, 'N': 4.0}\",\"('Fe', 'Mo', 'N', 'Ni')\",OTHERS,False\nmp-1183803,\"{'Ce': 1.0, 'Dy': 1.0, 'Mg': 2.0}\",\"('Ce', 'Dy', 'Mg')\",OTHERS,False\nmp-1182869,\"{'Al': 4.0, 'O': 8.0}\",\"('Al', 'O')\",OTHERS,False\nmp-1106325,\"{'Ca': 1.0, 'Cu': 3.0, 'Pt': 4.0, 'O': 12.0}\",\"('Ca', 'Cu', 'O', 'Pt')\",OTHERS,False\nmp-862978,\"{'Er': 2.0, 'Ag': 1.0, 'Ru': 1.0}\",\"('Ag', 'Er', 'Ru')\",OTHERS,False\nmp-1224851,\"{'Ga': 1.0, 'Cu': 1.0, 'Ge': 1.0, 'Se': 4.0}\",\"('Cu', 'Ga', 'Ge', 'Se')\",OTHERS,False\nmp-1071036,\"{'Tb': 2.0, 'Sc': 2.0, 'Sb': 2.0}\",\"('Sb', 'Sc', 'Tb')\",OTHERS,False\nmp-1182891,\"{'Al': 2.0, 'C': 2.0, 'N': 2.0, 'O': 10.0}\",\"('Al', 'C', 'N', 'O')\",OTHERS,False\nmp-1213382,\"{'Cs': 2.0, 'Pr': 2.0, 'Nb': 12.0, 'Br': 36.0}\",\"('Br', 'Cs', 'Nb', 'Pr')\",OTHERS,False\nmp-22915,\"{'Ag': 1.0, 'I': 1.0}\",\"('Ag', 'I')\",OTHERS,False\nmp-1210351,\"{'Na': 6.0, 'Yb': 2.0, 'Br': 12.0}\",\"('Br', 'Na', 'Yb')\",OTHERS,False\nmp-1205905,\"{'Dy': 4.0, 'Ge': 4.0, 'Ru': 2.0}\",\"('Dy', 'Ge', 'Ru')\",OTHERS,False\nmvc-6278,\"{'Zn': 8.0, 'Mo': 16.0, 'O': 32.0}\",\"('Mo', 'O', 'Zn')\",OTHERS,False\nmp-767219,\"{'Li': 8.0, 'Ti': 8.0, 'Mn': 2.0, 'Co': 8.0, 'O': 36.0}\",\"('Co', 'Li', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-1113723,\"{'Rb': 2.0, 'Ag': 1.0, 'Sb': 1.0, 'I': 6.0}\",\"('Ag', 'I', 'Rb', 'Sb')\",OTHERS,False\nmp-770191,\"{'Li': 8.0, 'V': 8.0, 'S': 12.0, 'O': 48.0}\",\"('Li', 'O', 'S', 'V')\",OTHERS,False\nmp-996997,\"{'Li': 2.0, 'Ag': 2.0, 'O': 4.0}\",\"('Ag', 'Li', 'O')\",OTHERS,False\nmp-541090,\"{'Ce': 4.0, 'Se': 8.0, 'O': 24.0}\",\"('Ce', 'O', 'Se')\",OTHERS,False\nmp-23058,\"{'O': 2.0, 'Cl': 2.0, 'Nd': 2.0}\",\"('Cl', 'Nd', 'O')\",OTHERS,False\nmp-1227957,\"{'Ba': 1.0, 'Fe': 1.0, 'As': 2.0, 'Ru': 1.0}\",\"('As', 'Ba', 'Fe', 'Ru')\",OTHERS,False\nmp-1222669,\"{'Li': 2.0, 'I': 1.0, 'Br': 1.0}\",\"('Br', 'I', 'Li')\",OTHERS,False\nmp-1219556,\"{'Sb': 8.0, 'Te': 16.0, 'Pd': 12.0}\",\"('Pd', 'Sb', 'Te')\",OTHERS,False\nmp-1187158,\"{'Sr': 2.0, 'Br': 4.0}\",\"('Br', 'Sr')\",OTHERS,False\nmp-1209311,\"{'Rb': 2.0, 'Gd': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Gd', 'Mo', 'O', 'Rb')\",OTHERS,False\nmp-753738,\"{'V': 3.0, 'Co': 1.0, 'O': 8.0}\",\"('Co', 'O', 'V')\",OTHERS,False\nmp-3407,\"{'Cr': 5.0, 'Se': 8.0, 'Tl': 1.0}\",\"('Cr', 'Se', 'Tl')\",OTHERS,False\nmp-21208,\"{'F': 9.0, 'Rh': 3.0}\",\"('F', 'Rh')\",OTHERS,False\nmp-755700,\"{'Fe': 6.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1112490,\"{'Cs': 2.0, 'Tl': 1.0, 'In': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'In', 'Tl')\",OTHERS,False\nmp-1224400,\"{'In': 2.0, 'Cu': 2.0, 'Se': 2.0, 'S': 2.0}\",\"('Cu', 'In', 'S', 'Se')\",OTHERS,False\nmp-1229240,\"{'Ca': 12.0, 'Ti': 12.0, 'Si': 8.0, 'Ge': 4.0, 'O': 60.0}\",\"('Ca', 'Ge', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-27301,\"{'Cl': 16.0, 'Rb': 6.0, 'Au': 6.0}\",\"('Au', 'Cl', 'Rb')\",OTHERS,False\nmp-1229313,\"{'Ca': 2.0, 'Eu': 4.0, 'Ge': 8.0, 'O': 24.0}\",\"('Ca', 'Eu', 'Ge', 'O')\",OTHERS,False\nmp-1105201,\"{'Ba': 5.0, 'In': 4.0, 'Te': 4.0, 'S': 7.0}\",\"('Ba', 'In', 'S', 'Te')\",OTHERS,False\nmp-555948,\"{'C': 74.0, 'F': 42.0}\",\"('C', 'F')\",OTHERS,False\nmp-510232,\"{'Nd': 12.0, 'Co': 6.0, 'Sn': 1.0}\",\"('Co', 'Nd', 'Sn')\",OTHERS,False\nmp-1207440,\"{'Zr': 14.0, 'Pt': 20.0}\",\"('Pt', 'Zr')\",OTHERS,False\nmp-7238,\"{'B': 4.0, 'O': 12.0, 'Nd': 4.0}\",\"('B', 'Nd', 'O')\",OTHERS,False\nmp-1175576,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-623837,\"{'As': 2.0, 'C': 6.0, 'N': 6.0}\",\"('As', 'C', 'N')\",OTHERS,False\nmp-867529,\"{'Li': 2.0, 'Ni': 4.0, 'P': 6.0, 'O': 20.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-8215,\"{'S': 6.0, 'La': 2.0, 'Yb': 2.0}\",\"('La', 'S', 'Yb')\",OTHERS,False\nmp-1114337,\"{'Na': 2.0, 'Li': 1.0, 'Ir': 1.0, 'F': 6.0}\",\"('F', 'Ir', 'Li', 'Na')\",OTHERS,False\nmp-6691,\"{'O': 8.0, 'Cu': 4.0, 'Ba': 2.0, 'Dy': 1.0}\",\"('Ba', 'Cu', 'Dy', 'O')\",OTHERS,False\nmp-1246459,\"{'Ca': 10.0, 'Fe': 2.0, 'N': 8.0}\",\"('Ca', 'Fe', 'N')\",OTHERS,False\nmp-768749,\"{'Li': 8.0, 'Al': 2.0, 'Cr': 6.0, 'O': 16.0}\",\"('Al', 'Cr', 'Li', 'O')\",OTHERS,False\nmp-1226293,\"{'Cr': 4.0, 'In': 1.0, 'Ag': 1.0, 'S': 8.0}\",\"('Ag', 'Cr', 'In', 'S')\",OTHERS,False\nmp-1113491,\"{'Cs': 3.0, 'Sc': 1.0, 'I': 6.0}\",\"('Cs', 'I', 'Sc')\",OTHERS,False\nmp-723036,\"{'Fe': 4.0, 'H': 64.0, 'C': 16.0, 'S': 16.0, 'N': 32.0, 'Cl': 8.0}\",\"('C', 'Cl', 'Fe', 'H', 'N', 'S')\",OTHERS,False\nmp-1211285,\"{'K': 1.0, 'Ta': 1.0, 'P': 2.0, 'O': 8.0}\",\"('K', 'O', 'P', 'Ta')\",OTHERS,False\nmp-16955,\"{'Li': 12.0, 'O': 16.0, 'K': 8.0, 'Fe': 4.0}\",\"('Fe', 'K', 'Li', 'O')\",OTHERS,False\nmp-1104460,\"{'Zn': 2.0, 'P': 4.0, 'O': 8.0}\",\"('O', 'P', 'Zn')\",OTHERS,False\nmvc-15145,\"{'Zn': 3.0, 'Cu': 10.0, 'Te': 6.0, 'O': 36.0}\",\"('Cu', 'O', 'Te', 'Zn')\",OTHERS,False\nmp-17056,\"{'Li': 6.0, 'O': 24.0, 'P': 6.0, 'Zn': 6.0}\",\"('Li', 'O', 'P', 'Zn')\",OTHERS,False\nmp-554259,\"{'Sr': 4.0, 'Ag': 4.0, 'B': 28.0, 'O': 48.0}\",\"('Ag', 'B', 'O', 'Sr')\",OTHERS,False\nmp-1204743,\"{'Rb': 8.0, 'Cd': 4.0, 'C': 8.0, 'Cl': 8.0, 'O': 20.0}\",\"('C', 'Cd', 'Cl', 'O', 'Rb')\",OTHERS,False\nmp-1176538,\"{'Li': 4.0, 'V': 4.0, 'F': 16.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-567769,\"{'Ca': 1.0, 'Si': 2.0, 'Pd': 2.0}\",\"('Ca', 'Pd', 'Si')\",OTHERS,False\nmp-1187241,\"{'Ta': 2.0, 'Ir': 6.0}\",\"('Ir', 'Ta')\",OTHERS,False\nmp-27422,\"{'F': 6.0, 'Cs': 1.0, 'Bi': 1.0}\",\"('Bi', 'Cs', 'F')\",OTHERS,False\nmp-1019270,\"{'Ta': 2.0, 'Ti': 1.0, 'N': 3.0}\",\"('N', 'Ta', 'Ti')\",OTHERS,False\nmp-1222465,\"{'Lu': 12.0, 'Co': 9.0}\",\"('Co', 'Lu')\",OTHERS,False\nmp-1096564,\"{'Sr': 2.0, 'Zn': 1.0, 'Cd': 1.0}\",\"('Cd', 'Sr', 'Zn')\",OTHERS,False\nmp-560547,\"{'K': 2.0, 'Cr': 2.0, 'F': 6.0}\",\"('Cr', 'F', 'K')\",OTHERS,False\nmp-1218965,\"{'Sm': 1.0, 'U': 1.0, 'N': 2.0}\",\"('N', 'Sm', 'U')\",OTHERS,False\nmp-1184811,\"{'In': 2.0, 'Ga': 6.0}\",\"('Ga', 'In')\",OTHERS,False\nmp-25929,\"{'Li': 6.0, 'O': 24.0, 'P': 6.0, 'Bi': 4.0}\",\"('Bi', 'Li', 'O', 'P')\",OTHERS,False\nmp-1111388,\"{'K': 3.0, 'Pr': 1.0, 'Br': 6.0}\",\"('Br', 'K', 'Pr')\",OTHERS,False\nmp-1194097,\"{'In': 1.0, 'Co': 22.0, 'B': 6.0}\",\"('B', 'Co', 'In')\",OTHERS,False\nmp-1080849,\"{'K': 16.0, 'Re': 16.0, 'N': 32.0}\",\"('K', 'N', 'Re')\",OTHERS,False\nmvc-10961,\"{'V': 8.0, 'O': 18.0}\",\"('O', 'V')\",OTHERS,False\nmp-582399,\"{'Pu': 6.0, 'Pd': 10.0}\",\"('Pd', 'Pu')\",OTHERS,False\nmp-554529,\"{'Ba': 24.0, 'Ti': 12.0, 'O': 48.0}\",\"('Ba', 'O', 'Ti')\",OTHERS,False\nmp-1147675,\"{'Rh': 6.0, 'Cl': 8.0}\",\"('Cl', 'Rh')\",OTHERS,False\nmp-557176,\"{'Ba': 10.0, 'B': 8.0, 'O': 20.0, 'F': 4.0}\",\"('B', 'Ba', 'F', 'O')\",OTHERS,False\nmp-1028528,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1194044,\"{'V': 16.0, 'Co': 8.0, 'N': 4.0}\",\"('Co', 'N', 'V')\",OTHERS,False\nmp-761151,\"{'Zr': 6.0, 'O': 11.0}\",\"('O', 'Zr')\",OTHERS,False\nmp-1099932,\"{'K': 1.0, 'Na': 7.0, 'V': 6.0, 'Cr': 2.0, 'O': 24.0}\",\"('Cr', 'K', 'Na', 'O', 'V')\",OTHERS,False\nmp-1220910,\"{'Na': 2.0, 'Ta': 2.0, 'W': 2.0, 'O': 14.0}\",\"('Na', 'O', 'Ta', 'W')\",OTHERS,False\nmp-780186,\"{'Li': 9.0, 'Mn': 10.0, 'O': 20.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1218235,\"{'Sr': 1.0, 'Gd': 1.0, 'Ni': 1.0, 'O': 4.0}\",\"('Gd', 'Ni', 'O', 'Sr')\",OTHERS,False\nmp-752542,\"{'Li': 2.0, 'Ti': 2.0, 'Mn': 3.0, 'O': 10.0}\",\"('Li', 'Mn', 'O', 'Ti')\",OTHERS,False\nmp-758792,\"{'Li': 18.0, 'Cr': 6.0, 'Si': 12.0, 'O': 42.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,False\nmp-7280,\"{'P': 8.0, 'S': 8.0, 'Pd': 8.0}\",\"('P', 'Pd', 'S')\",OTHERS,False\nmp-614572,\"{'Ca': 12.0, 'In': 4.0, 'P': 12.0}\",\"('Ca', 'In', 'P')\",OTHERS,False\nmp-1218689,\"{'Sr': 2.0, 'V': 11.0, 'Ni': 1.0, 'O': 22.0}\",\"('Ni', 'O', 'Sr', 'V')\",OTHERS,False\nmp-978285,\"{'Mg': 3.0, 'Mn': 1.0}\",\"('Mg', 'Mn')\",OTHERS,False\nmp-1346,\"{'B': 12.0, 'O': 2.0}\",\"('B', 'O')\",OTHERS,False\nmp-1203746,\"{'As': 4.0, 'S': 4.0, 'Xe': 4.0, 'N': 4.0, 'F': 40.0}\",\"('As', 'F', 'N', 'S', 'Xe')\",OTHERS,False\nGa 3.85 Ni 2.15 Hf 1,\"{'Ga': 3.85, 'Ni': 2.15, 'Hf': 1.0}\",\"('Ga', 'Hf', 'Ni')\",AC,False\nmp-1084775,\"{'Sc': 3.0, 'Sn': 3.0, 'Pt': 3.0}\",\"('Pt', 'Sc', 'Sn')\",OTHERS,False\nmp-1186318,\"{'Nd': 2.0, 'Lu': 6.0}\",\"('Lu', 'Nd')\",OTHERS,False\nmp-1080851,\"{'Ce': 12.0, 'Se': 24.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-1219139,\"{'Sm': 1.0, 'Er': 3.0, 'Fe': 34.0}\",\"('Er', 'Fe', 'Sm')\",OTHERS,False\nmp-1080018,\"{'Th': 2.0, 'Co': 4.0, 'Sn': 4.0}\",\"('Co', 'Sn', 'Th')\",OTHERS,False\nmp-1246063,\"{'V': 2.0, 'Co': 8.0, 'N': 8.0}\",\"('Co', 'N', 'V')\",OTHERS,False\nmp-1184754,\"{'K': 2.0, 'Rb': 1.0, 'Bi': 1.0}\",\"('Bi', 'K', 'Rb')\",OTHERS,False\nmp-759818,\"{'W': 8.0, 'O': 8.0, 'F': 32.0}\",\"('F', 'O', 'W')\",OTHERS,False\nmp-752429,\"{'Sc': 4.0, 'Tl': 4.0, 'O': 12.0}\",\"('O', 'Sc', 'Tl')\",OTHERS,False\nmp-684604,\"{'Cu': 2.0, 'S': 4.0}\",\"('Cu', 'S')\",OTHERS,False\nmvc-9199,\"{'Mg': 4.0, 'Fe': 12.0, 'O': 28.0}\",\"('Fe', 'Mg', 'O')\",OTHERS,False\nmp-19061,\"{'Li': 4.0, 'O': 24.0, 'Si': 8.0, 'Fe': 4.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1232039,\"{'La': 16.0, 'Mg': 8.0, 'Se': 32.0}\",\"('La', 'Mg', 'Se')\",OTHERS,False\nmp-1186392,\"{'Pa': 1.0, 'Be': 1.0, 'O': 3.0}\",\"('Be', 'O', 'Pa')\",OTHERS,False\nmp-7541,\"{'P': 6.0, 'Sn': 2.0}\",\"('P', 'Sn')\",OTHERS,False\nmp-31090,\"{'Pd': 4.0, 'Er': 4.0, 'Pb': 2.0}\",\"('Er', 'Pb', 'Pd')\",OTHERS,False\nmp-1492,\"{'Cd': 3.0, 'Te': 3.0}\",\"('Cd', 'Te')\",OTHERS,False\nmp-1191414,\"{'Y': 6.0, 'Cl': 4.0, 'O': 12.0}\",\"('Cl', 'O', 'Y')\",OTHERS,False\nmp-1205603,\"{'Tb': 2.0, 'Si': 2.0, 'Ru': 4.0, 'C': 2.0}\",\"('C', 'Ru', 'Si', 'Tb')\",OTHERS,False\nmp-559405,\"{'Rb': 1.0, 'U': 2.0, 'Sb': 1.0, 'S': 8.0}\",\"('Rb', 'S', 'Sb', 'U')\",OTHERS,False\nmp-1039962,\"{'Ce': 1.0, 'Mg': 30.0, 'B': 1.0, 'O': 32.0}\",\"('B', 'Ce', 'Mg', 'O')\",OTHERS,False\nmp-758334,\"{'Li': 6.0, 'Cr': 3.0, 'Sb': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1245578,\"{'Li': 1.0, 'Pt': 1.0, 'N': 1.0}\",\"('Li', 'N', 'Pt')\",OTHERS,False\nmp-568666,\"{'Rb': 2.0, 'Au': 2.0, 'I': 6.0}\",\"('Au', 'I', 'Rb')\",OTHERS,False\nmp-758498,\"{'Li': 4.0, 'Cu': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Cu', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1225306,\"{'Dy': 2.0, 'Si': 3.0, 'Ni': 1.0}\",\"('Dy', 'Ni', 'Si')\",OTHERS,False\nmp-865764,\"{'Yb': 1.0, 'Gd': 1.0, 'Rh': 2.0}\",\"('Gd', 'Rh', 'Yb')\",OTHERS,False\nmp-1216863,\"{'Ti': 2.0, 'Nb': 2.0, 'Bi': 6.0, 'O': 18.0}\",\"('Bi', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-1094619,\"{'Mg': 8.0, 'Ga': 4.0}\",\"('Ga', 'Mg')\",OTHERS,False\nmp-1183990,\"{'Ga': 2.0, 'O': 2.0}\",\"('Ga', 'O')\",OTHERS,False\nmp-26585,\"{'Li': 10.0, 'O': 36.0, 'P': 10.0, 'Sb': 4.0}\",\"('Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-2563,\"{'Se': 1.0, 'Ce': 1.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-1218906,\"{'Sr': 10.0, 'Mg': 5.0, 'Mo': 3.0, 'W': 2.0, 'O': 30.0}\",\"('Mg', 'Mo', 'O', 'Sr', 'W')\",OTHERS,False\nmp-974627,\"{'K': 3.0, 'Tl': 1.0}\",\"('K', 'Tl')\",OTHERS,False\nmp-1174401,\"{'Li': 7.0, 'Co': 5.0, 'O': 12.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-23565,\"{'O': 14.0, 'Cr': 4.0, 'Ag': 1.0, 'Bi': 1.0}\",\"('Ag', 'Bi', 'Cr', 'O')\",OTHERS,False\nmp-631535,\"{'Be': 1.0, 'W': 2.0, 'Cl': 1.0}\",\"('Be', 'Cl', 'W')\",OTHERS,False\nmp-768536,\"{'Cs': 12.0, 'La': 4.0, 'O': 12.0}\",\"('Cs', 'La', 'O')\",OTHERS,False\nmp-1212318,\"{'Na': 1.0, 'Yb': 3.0, 'Se': 6.0}\",\"('Na', 'Se', 'Yb')\",OTHERS,False\nmp-1232409,\"{'Nb': 16.0, 'Si': 4.0, 'Te': 16.0}\",\"('Nb', 'Si', 'Te')\",OTHERS,False\nmp-1210642,\"{'Mn': 4.0, 'Te': 4.0, 'O': 12.0}\",\"('Mn', 'O', 'Te')\",OTHERS,False\nmp-9348,\"{'F': 6.0, 'K': 1.0, 'Sc': 1.0, 'Rb': 2.0}\",\"('F', 'K', 'Rb', 'Sc')\",OTHERS,False\nmp-694992,\"{'Co': 1.0, 'P': 2.0, 'H': 18.0, 'N': 6.0, 'F': 12.0}\",\"('Co', 'F', 'H', 'N', 'P')\",OTHERS,False\nmp-23548,\"{'Ag': 2.0, 'Bi': 2.0, 'O': 6.0}\",\"('Ag', 'Bi', 'O')\",OTHERS,False\nmp-1076893,\"{'Ba': 8.0, 'Sr': 24.0, 'Co': 20.0, 'Cu': 12.0, 'O': 80.0}\",\"('Ba', 'Co', 'Cu', 'O', 'Sr')\",OTHERS,False\nmp-1247384,\"{'Mg': 2.0, 'Mn': 1.0, 'W': 3.0, 'S': 8.0}\",\"('Mg', 'Mn', 'S', 'W')\",OTHERS,False\nmp-2607,\"{'Ge': 3.0, 'U': 1.0}\",\"('Ge', 'U')\",OTHERS,False\nmp-1095886,\"{'Hf': 2.0, 'Ni': 1.0, 'Rh': 1.0}\",\"('Hf', 'Ni', 'Rh')\",OTHERS,False\nmp-1219653,\"{'Pu': 1.0, 'Zr': 1.0}\",\"('Pu', 'Zr')\",OTHERS,False\nmp-1185355,\"{'Li': 2.0, 'Eu': 6.0}\",\"('Eu', 'Li')\",OTHERS,False\nmp-865615,\"{'Ga': 1.0, 'Si': 1.0, 'Ru': 2.0}\",\"('Ga', 'Ru', 'Si')\",OTHERS,False\nmp-971975,\"{'Sr': 1.0, 'Hg': 1.0, 'O': 3.0}\",\"('Hg', 'O', 'Sr')\",OTHERS,False\nmp-762514,\"{'Li': 4.0, 'Mn': 12.0, 'O': 24.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1246222,\"{'Mn': 6.0, 'Si': 12.0, 'N': 22.0}\",\"('Mn', 'N', 'Si')\",OTHERS,False\nmp-504450,\"{'Tl': 4.0, 'F': 20.0, 'Be': 8.0}\",\"('Be', 'F', 'Tl')\",OTHERS,False\nmp-1183144,{'Al': 4.0},\"('Al',)\",OTHERS,False\nmp-1073115,\"{'Mg': 8.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1211663,\"{'K': 4.0, 'Gd': 8.0, 'Cl': 28.0}\",\"('Cl', 'Gd', 'K')\",OTHERS,False\nmp-1218860,\"{'Sr': 6.0, 'Tl': 3.0, 'Cu': 3.0, 'O': 16.0}\",\"('Cu', 'O', 'Sr', 'Tl')\",OTHERS,False\nmp-672695,\"{'K': 4.0, 'Ag': 4.0, 'C': 4.0, 'O': 12.0}\",\"('Ag', 'C', 'K', 'O')\",OTHERS,False\nmp-1195181,\"{'Co': 16.0, 'Se': 12.0, 'Cl': 8.0, 'O': 36.0}\",\"('Cl', 'Co', 'O', 'Se')\",OTHERS,False\nmp-1225645,\"{'Er': 4.0, 'Fe': 1.0, 'S': 7.0}\",\"('Er', 'Fe', 'S')\",OTHERS,False\nmp-1199833,\"{'Cs': 40.0, 'Tl': 24.0, 'Si': 4.0, 'O': 16.0}\",\"('Cs', 'O', 'Si', 'Tl')\",OTHERS,False\nmp-571634,\"{'Yb': 10.0, 'Pb': 6.0}\",\"('Pb', 'Yb')\",OTHERS,False\nmp-1079538,\"{'V': 2.0, 'H': 2.0, 'O': 5.0}\",\"('H', 'O', 'V')\",OTHERS,False\nmp-1200466,\"{'Rb': 8.0, 'Sb': 8.0, 'S': 4.0, 'O': 20.0, 'F': 24.0}\",\"('F', 'O', 'Rb', 'S', 'Sb')\",OTHERS,False\nmp-1080734,\"{'Ce': 2.0, 'B': 4.0, 'Os': 4.0}\",\"('B', 'Ce', 'Os')\",OTHERS,False\nmp-867704,\"{'Li': 2.0, 'Ni': 2.0, 'P': 6.0, 'O': 18.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-13570,\"{'Mg': 2.0, 'Sc': 4.0, 'Ga': 4.0}\",\"('Ga', 'Mg', 'Sc')\",OTHERS,False\nmp-1228844,\"{'Er': 20.0, 'Cu': 6.0, 'Pb': 9.0, 'S': 42.0}\",\"('Cu', 'Er', 'Pb', 'S')\",OTHERS,False\nmp-1025238,\"{'Tm': 1.0, 'Ti': 2.0, 'Ga': 4.0}\",\"('Ga', 'Ti', 'Tm')\",OTHERS,False\nmp-981387,\"{'Hg': 3.0, 'Bi': 1.0}\",\"('Bi', 'Hg')\",OTHERS,False\nmp-1096807,\"{'Al': 1.0, 'O': 3.0, 'F': 3.0}\",\"('Al', 'F', 'O')\",OTHERS,False\nmp-752849,\"{'Y': 4.0, 'Pb': 4.0, 'O': 14.0}\",\"('O', 'Pb', 'Y')\",OTHERS,False\nmp-1101094,\"{'Cs': 2.0, 'Ce': 1.0, 'Cl': 6.0}\",\"('Ce', 'Cl', 'Cs')\",OTHERS,False\nmp-1226220,\"{'Cr': 1.0, 'Ga': 1.0, 'Fe': 2.0}\",\"('Cr', 'Fe', 'Ga')\",OTHERS,False\nmp-542120,\"{'Ba': 8.0, 'Fe': 4.0, 'O': 16.0}\",\"('Ba', 'Fe', 'O')\",OTHERS,False\nmp-1227295,\"{'Be': 4.0, 'Ni': 1.0, 'Ge': 1.0}\",\"('Be', 'Ge', 'Ni')\",OTHERS,False\nmp-1197847,\"{'Pr': 5.0, 'Mg': 41.0}\",\"('Mg', 'Pr')\",OTHERS,False\nmp-1211742,\"{'K': 4.0, 'Tb': 4.0, 'H': 4.0, 'S': 8.0, 'O': 32.0}\",\"('H', 'K', 'O', 'S', 'Tb')\",OTHERS,False\nmp-1215799,\"{'Yb': 5.0, 'Se': 7.0}\",\"('Se', 'Yb')\",OTHERS,False\nmp-1229104,\"{'Al': 2.0, 'H': 30.0, 'O': 12.0, 'F': 12.0}\",\"('Al', 'F', 'H', 'O')\",OTHERS,False\nmp-1200518,\"{'In': 2.0, 'Re': 8.0, 'C': 28.0, 'I': 6.0, 'O': 28.0}\",\"('C', 'I', 'In', 'O', 'Re')\",OTHERS,False\nmp-1186950,\"{'Sc': 2.0, 'In': 1.0, 'Hg': 1.0}\",\"('Hg', 'In', 'Sc')\",OTHERS,False\nmp-26887,\"{'Li': 4.0, 'V': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1093847,\"{'Ba': 2.0, 'Pd': 1.0, 'Au': 1.0}\",\"('Au', 'Ba', 'Pd')\",OTHERS,False\nmp-981208,\"{'Y': 1.0, 'Tm': 1.0, 'Hg': 2.0}\",\"('Hg', 'Tm', 'Y')\",OTHERS,False\nmp-26855,\"{'Li': 4.0, 'O': 24.0, 'P': 8.0, 'Sn': 2.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1178425,\"{'Co': 3.0, 'F': 9.0}\",\"('Co', 'F')\",OTHERS,False\nmp-1216851,\"{'V': 32.0, 'N': 3.0}\",\"('N', 'V')\",OTHERS,False\nmp-8842,\"{'Si': 4.0, 'Ca': 4.0, 'Pd': 4.0}\",\"('Ca', 'Pd', 'Si')\",OTHERS,False\nmp-1030405,\"{'Te': 4.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-979420,\"{'Y': 1.0, 'Er': 1.0, 'Ir': 2.0}\",\"('Er', 'Ir', 'Y')\",OTHERS,False\nmp-759667,\"{'Li': 8.0, 'Sn': 4.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'O', 'Sn')\",OTHERS,False\nmvc-15702,\"{'Zn': 1.0, 'Sn': 2.0, 'N': 2.0}\",\"('N', 'Sn', 'Zn')\",OTHERS,False\nmp-1105934,\"{'Li': 2.0, 'Mn': 2.0, 'As': 2.0, 'O': 10.0}\",\"('As', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1019532,\"{'Ba': 4.0, 'Al': 16.0, 'O': 28.0}\",\"('Al', 'Ba', 'O')\",OTHERS,False\nmp-769266,\"{'Ca': 12.0, 'Ta': 8.0, 'O': 32.0}\",\"('Ca', 'O', 'Ta')\",OTHERS,False\nmp-645962,\"{'La': 8.0, 'B': 28.0, 'O': 54.0}\",\"('B', 'La', 'O')\",OTHERS,False\nmp-753668,\"{'Ba': 2.0, 'Gd': 1.0, 'Sb': 1.0, 'O': 6.0}\",\"('Ba', 'Gd', 'O', 'Sb')\",OTHERS,False\nmp-753816,\"{'Na': 12.0, 'Mg': 2.0, 'O': 8.0}\",\"('Mg', 'Na', 'O')\",OTHERS,False\nmp-14116,\"{'O': 2.0, 'Cu': 1.0, 'Rh': 1.0}\",\"('Cu', 'O', 'Rh')\",OTHERS,False\nmp-1070603,\"{'Sm': 1.0, 'Si': 2.0, 'Ir': 2.0}\",\"('Ir', 'Si', 'Sm')\",OTHERS,False\nmp-646420,\"{'Nd': 4.0, 'In': 2.0, 'Rh': 4.0}\",\"('In', 'Nd', 'Rh')\",OTHERS,False\nmp-1038779,\"{'Mg': 3.0, 'Al': 3.0}\",\"('Al', 'Mg')\",OTHERS,False\nmp-771143,\"{'Na': 6.0, 'Ni': 2.0, 'B': 2.0, 'S': 2.0, 'O': 14.0}\",\"('B', 'Na', 'Ni', 'O', 'S')\",OTHERS,False\nmp-780697,\"{'Mn': 10.0, 'O': 5.0, 'F': 15.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-695452,\"{'K': 2.0, 'Al': 11.0, 'Si': 13.0, 'Ag': 9.0, 'O': 48.0}\",\"('Ag', 'Al', 'K', 'O', 'Si')\",OTHERS,False\nmp-1227292,\"{'Be': 4.0, 'Cu': 1.0, 'Ge': 1.0}\",\"('Be', 'Cu', 'Ge')\",OTHERS,False\nmp-554763,\"{'Np': 4.0, 'Ag': 4.0, 'Se': 4.0, 'O': 20.0}\",\"('Ag', 'Np', 'O', 'Se')\",OTHERS,False\nmp-642821,\"{'K': 6.0, 'H': 10.0, 'Pt': 2.0}\",\"('H', 'K', 'Pt')\",OTHERS,False\nmp-1186245,\"{'Nd': 2.0, 'Ho': 2.0, 'O': 5.0}\",\"('Ho', 'Nd', 'O')\",OTHERS,False\nmp-1094517,\"{'Mg': 4.0, 'Sn': 2.0}\",\"('Mg', 'Sn')\",OTHERS,False\nmp-615760,\"{'Ba': 10.0, 'In': 4.0, 'Sb': 12.0}\",\"('Ba', 'In', 'Sb')\",OTHERS,False\nmp-1020711,\"{'Rb': 4.0, 'Si': 2.0, 'S': 12.0, 'O': 42.0}\",\"('O', 'Rb', 'S', 'Si')\",OTHERS,False\nmp-23237,\"{'F': 12.0, 'Bi': 4.0}\",\"('Bi', 'F')\",OTHERS,False\nmp-1079460,\"{'Ti': 6.0, 'Sn': 2.0}\",\"('Sn', 'Ti')\",OTHERS,False\nmp-23811,\"{'H': 6.0, 'B': 2.0, 'O': 20.0, 'P': 4.0, 'Ca': 2.0, 'Ni': 2.0}\",\"('B', 'Ca', 'H', 'Ni', 'O', 'P')\",OTHERS,False\nmp-757227,\"{'Li': 8.0, 'Fe': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1097440,\"{'Ca': 1.0, 'Sc': 1.0, 'Rh': 2.0}\",\"('Ca', 'Rh', 'Sc')\",OTHERS,False\nmp-1114417,\"{'Rb': 2.0, 'Li': 1.0, 'Ce': 1.0, 'Cl': 6.0}\",\"('Ce', 'Cl', 'Li', 'Rb')\",OTHERS,False\nmp-1114491,\"{'Rb': 3.0, 'Au': 1.0, 'Br': 6.0}\",\"('Au', 'Br', 'Rb')\",OTHERS,False\nmp-547069,\"{'Fe': 1.0, 'Bi': 1.0, 'O': 3.0}\",\"('Bi', 'Fe', 'O')\",OTHERS,False\nmp-1207406,\"{'Zr': 10.0, 'Al': 6.0, 'N': 2.0}\",\"('Al', 'N', 'Zr')\",OTHERS,False\nmp-1028492,\"{'Te': 2.0, 'W': 4.0, 'S': 6.0}\",\"('S', 'Te', 'W')\",OTHERS,False\nmp-1183621,\"{'Cd': 3.0, 'Pd': 1.0}\",\"('Cd', 'Pd')\",OTHERS,False\nmp-675287,\"{'Cs': 2.0, 'Cu': 2.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Cu')\",OTHERS,False\nmp-1256151,\"{'Zr': 10.0, 'Al': 2.0, 'Ni': 8.0}\",\"('Al', 'Ni', 'Zr')\",OTHERS,False\nmp-976804,\"{'Ni': 1.0, 'Ag': 1.0, 'Te': 2.0}\",\"('Ag', 'Ni', 'Te')\",OTHERS,False\nmp-1183266,\"{'Ac': 2.0, 'Pr': 6.0}\",\"('Ac', 'Pr')\",OTHERS,False\nmp-556938,\"{'Pr': 30.0, 'Ti': 24.0, 'Se': 58.0, 'I': 8.0, 'O': 25.0}\",\"('I', 'O', 'Pr', 'Se', 'Ti')\",OTHERS,False\nmp-1184616,\"{'Ho': 2.0, 'Mg': 1.0, 'Os': 1.0}\",\"('Ho', 'Mg', 'Os')\",OTHERS,False\nAl 75 Os 10 Pd 15,\"{'Al': 75.0, 'Os': 10.0, 'Pd': 15.0}\",\"('Al', 'Os', 'Pd')\",QC,False\nmp-1210013,\"{'Nb': 4.0, 'Fe': 8.0, 'O': 18.0}\",\"('Fe', 'Nb', 'O')\",OTHERS,False\nmp-647218,\"{'Re': 8.0, 'P': 8.0, 'O': 44.0}\",\"('O', 'P', 'Re')\",OTHERS,False\nmp-1036617,\"{'Mg': 14.0, 'Al': 1.0, 'V': 1.0, 'O': 16.0}\",\"('Al', 'Mg', 'O', 'V')\",OTHERS,False\nmp-1214317,\"{'Ca': 12.0, 'Ga': 8.0, 'Sn': 12.0, 'O': 48.0}\",\"('Ca', 'Ga', 'O', 'Sn')\",OTHERS,False\nmvc-4610,\"{'Y': 2.0, 'Co': 4.0, 'O': 8.0}\",\"('Co', 'O', 'Y')\",OTHERS,False\nmp-22036,\"{'Zr': 4.0, 'Pd': 4.0, 'Sb': 4.0}\",\"('Pd', 'Sb', 'Zr')\",OTHERS,False\nmp-680450,\"{'K': 32.0, 'Li': 16.0, 'Sn': 64.0}\",\"('K', 'Li', 'Sn')\",OTHERS,False\nmp-769627,\"{'V': 2.0, 'Cr': 1.0, 'Fe': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Fe', 'O', 'P', 'V')\",OTHERS,False\nmp-667315,\"{'Sc': 4.0, 'Nb': 24.0, 'Cl': 52.0, 'O': 12.0}\",\"('Cl', 'Nb', 'O', 'Sc')\",OTHERS,False\nmp-768602,\"{'Li': 4.0, 'Fe': 5.0, 'Sb': 3.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Sb')\",OTHERS,False\nmp-1226309,\"{'Cr': 2.0, 'Cu': 2.0, 'S': 8.0}\",\"('Cr', 'Cu', 'S')\",OTHERS,False\nmp-1218614,\"{'Sr': 4.0, 'Li': 1.0, 'Ru': 3.0, 'O': 12.0}\",\"('Li', 'O', 'Ru', 'Sr')\",OTHERS,False\nmp-28558,\"{'Ge': 4.0, 'Br': 12.0, 'Rb': 4.0}\",\"('Br', 'Ge', 'Rb')\",OTHERS,False\nmp-1237663,\"{'Tl': 8.0, 'P': 4.0, 'O': 16.0}\",\"('O', 'P', 'Tl')\",OTHERS,False\nmp-555869,\"{'Li': 2.0, 'V': 4.0, 'O': 10.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1221599,\"{'Mn': 1.0, 'V': 1.0, 'Co': 4.0, 'Si': 2.0}\",\"('Co', 'Mn', 'Si', 'V')\",OTHERS,False\nmp-12628,{'Rb': 8.0},\"('Rb',)\",OTHERS,False\nmp-559019,\"{'Nd': 24.0, 'S': 16.0, 'Br': 4.0, 'N': 12.0}\",\"('Br', 'N', 'Nd', 'S')\",OTHERS,False\nmp-22707,\"{'Ag': 2.0, 'Sb': 2.0, 'Eu': 2.0}\",\"('Ag', 'Eu', 'Sb')\",OTHERS,False\nmp-626307,\"{'Fe': 4.0, 'H': 4.0, 'O': 8.0}\",\"('Fe', 'H', 'O')\",OTHERS,False\nmp-1221059,\"{'Na': 2.0, 'Sb': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Na', 'O', 'Sb', 'W')\",OTHERS,False\nmp-1211359,\"{'La': 1.0, 'Mn': 3.0, 'Cr': 4.0, 'O': 12.0}\",\"('Cr', 'La', 'Mn', 'O')\",OTHERS,False\nmp-1218554,\"{'Sr': 7.0, 'Y': 6.0, 'O': 1.0, 'F': 30.0}\",\"('F', 'O', 'Sr', 'Y')\",OTHERS,False\nmp-1009770,\"{'Ru': 1.0, 'N': 1.0}\",\"('N', 'Ru')\",OTHERS,False\nmp-972486,\"{'Sm': 3.0, 'Ti': 1.0}\",\"('Sm', 'Ti')\",OTHERS,False\nmp-1187986,\"{'Yb': 6.0, 'Sc': 2.0}\",\"('Sc', 'Yb')\",OTHERS,False\nmp-1097707,\"{'Cu': 96.0, 'Se': 48.0}\",\"('Cu', 'Se')\",OTHERS,False\nmp-1225740,\"{'Er': 2.0, 'Mn': 3.0, 'Sb': 3.0, 'O': 14.0}\",\"('Er', 'Mn', 'O', 'Sb')\",OTHERS,False\nmp-1221596,\"{'Mn': 2.0, 'Mo': 2.0, 'As': 4.0}\",\"('As', 'Mn', 'Mo')\",OTHERS,False\nmp-621852,\"{'La': 4.0, 'Ge': 10.0, 'Ru': 6.0}\",\"('Ge', 'La', 'Ru')\",OTHERS,False\nmp-21635,\"{'O': 24.0, 'Mn': 4.0, 'Ge': 8.0, 'Ce': 2.0}\",\"('Ce', 'Ge', 'Mn', 'O')\",OTHERS,False\nmp-626553,\"{'Ca': 2.0, 'H': 32.0, 'O': 20.0}\",\"('Ca', 'H', 'O')\",OTHERS,False\nmp-765076,\"{'Li': 4.0, 'Mn': 4.0, 'O': 4.0, 'F': 8.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1224583,\"{'Hf': 4.0, 'Ga': 4.0, 'Co': 4.0}\",\"('Co', 'Ga', 'Hf')\",OTHERS,False\nmp-690136,\"{'Mg': 4.0, 'Al': 3.0, 'H': 17.0, 'O': 17.0}\",\"('Al', 'H', 'Mg', 'O')\",OTHERS,False\nmp-1213827,\"{'Ce': 8.0, 'Ge': 1.0, 'Pd': 24.0}\",\"('Ce', 'Ge', 'Pd')\",OTHERS,False\nmp-251,\"{'N': 1.0, 'Ta': 1.0}\",\"('N', 'Ta')\",OTHERS,False\nmp-981396,\"{'Y': 2.0, 'B': 8.0, 'Ir': 8.0}\",\"('B', 'Ir', 'Y')\",OTHERS,False\nmp-1184569,{'Hg': 2.0},\"('Hg',)\",OTHERS,False\nmp-1203078,\"{'Sm': 4.0, 'Er': 11.0, 'S': 22.0}\",\"('Er', 'S', 'Sm')\",OTHERS,False\nmp-977548,\"{'Nd': 4.0, 'Mg': 2.0, 'Ge': 4.0}\",\"('Ge', 'Mg', 'Nd')\",OTHERS,False\nmp-1182250,\"{'Cd': 8.0, 'Se': 8.0, 'O': 30.0}\",\"('Cd', 'O', 'Se')\",OTHERS,False\nAg 42 In 42 Yb 16,\"{'Ag': 42.0, 'In': 42.0, 'Yb': 16.0}\",\"('Ag', 'In', 'Yb')\",QC,False\nmp-568570,\"{'Cs': 4.0, 'Sn': 4.0, 'I': 12.0}\",\"('Cs', 'I', 'Sn')\",OTHERS,False\nmp-1213056,\"{'Dy': 2.0, 'Al': 20.0, 'Fe': 4.0}\",\"('Al', 'Dy', 'Fe')\",OTHERS,False\nmp-20792,\"{'Ca': 4.0, 'Pd': 4.0, 'In': 2.0}\",\"('Ca', 'In', 'Pd')\",OTHERS,False\nmp-1106250,\"{'Gd': 10.0, 'Pb': 6.0}\",\"('Gd', 'Pb')\",OTHERS,False\nmp-1102945,\"{'Hf': 4.0, 'Ge': 4.0, 'Rh': 4.0}\",\"('Ge', 'Hf', 'Rh')\",OTHERS,False\nmp-1199032,\"{'Ni': 6.0, 'B': 6.0, 'P': 6.0, 'O': 36.0}\",\"('B', 'Ni', 'O', 'P')\",OTHERS,False\nmp-504616,\"{'Ce': 4.0, 'Co': 14.0, 'B': 6.0}\",\"('B', 'Ce', 'Co')\",OTHERS,False\nmp-1187954,\"{'Zn': 1.0, 'In': 3.0}\",\"('In', 'Zn')\",OTHERS,False\nmp-557250,\"{'Hg': 4.0, 'I': 4.0, 'N': 4.0, 'O': 12.0}\",\"('Hg', 'I', 'N', 'O')\",OTHERS,False\nmp-1206322,\"{'Ce': 2.0, 'Ag': 4.0}\",\"('Ag', 'Ce')\",OTHERS,False\nmp-117,{'Sn': 2.0},\"('Sn',)\",OTHERS,False\nmp-1215507,\"{'Yb': 1.0, 'Zn': 1.0, 'Cu': 1.0, 'As': 2.0}\",\"('As', 'Cu', 'Yb', 'Zn')\",OTHERS,False\nmp-34234,\"{'Al': 12.0, 'Ni': 6.0, 'O': 24.0}\",\"('Al', 'Ni', 'O')\",OTHERS,False\nmp-1228896,\"{'Ba': 10.0, 'Bi': 2.0, 'Pb': 8.0, 'O': 30.0}\",\"('Ba', 'Bi', 'O', 'Pb')\",OTHERS,False\nmp-555988,\"{'Na': 8.0, 'U': 2.0, 'Cr': 6.0, 'O': 28.0}\",\"('Cr', 'Na', 'O', 'U')\",OTHERS,False\nmp-1184036,\"{'Ga': 2.0, 'Ag': 6.0}\",\"('Ag', 'Ga')\",OTHERS,False\nmp-18297,\"{'N': 16.0, 'Ga': 8.0, 'Ba': 12.0}\",\"('Ba', 'Ga', 'N')\",OTHERS,False\nmp-1239251,\"{'Ta': 2.0, 'Cr': 6.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cr', 'Cu', 'S', 'Ta')\",OTHERS,False\nmp-867819,\"{'Li': 3.0, 'Cr': 3.0, 'S': 6.0, 'O': 24.0}\",\"('Cr', 'Li', 'O', 'S')\",OTHERS,False\nmp-26675,\"{'Li': 4.0, 'O': 48.0, 'P': 16.0, 'Sb': 4.0}\",\"('Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-22097,\"{'O': 12.0, 'Mo': 2.0, 'Rh': 4.0}\",\"('Mo', 'O', 'Rh')\",OTHERS,False\nmp-24681,\"{'H': 18.0, 'N': 6.0, 'O': 8.0, 'Cl': 4.0, 'Cr': 1.0, 'Cs': 1.0}\",\"('Cl', 'Cr', 'Cs', 'H', 'N', 'O')\",OTHERS,False\nmp-605437,\"{'Fe': 4.0, 'H': 4.0, 'O': 8.0}\",\"('Fe', 'H', 'O')\",OTHERS,False\nmp-580,\"{'B': 2.0, 'Pu': 1.0}\",\"('B', 'Pu')\",OTHERS,False\nmp-1187938,\"{'Yb': 1.0, 'Ag': 1.0, 'Au': 2.0}\",\"('Ag', 'Au', 'Yb')\",OTHERS,False\nmp-569302,\"{'Gd': 1.0, 'Si': 2.0, 'Ru': 2.0}\",\"('Gd', 'Ru', 'Si')\",OTHERS,False\nmp-768149,\"{'Dy': 6.0, 'In': 6.0, 'O': 18.0}\",\"('Dy', 'In', 'O')\",OTHERS,False\nmp-14139,\"{'O': 48.0, 'Fe': 20.0, 'Sm': 12.0}\",\"('Fe', 'O', 'Sm')\",OTHERS,False\nmp-23084,\"{'O': 4.0, 'Cl': 2.0, 'Pb': 2.0, 'Bi': 2.0}\",\"('Bi', 'Cl', 'O', 'Pb')\",OTHERS,False\nmp-1225289,\"{'Dy': 2.0, 'Te': 1.0, 'S': 2.0}\",\"('Dy', 'S', 'Te')\",OTHERS,False\nmp-559355,\"{'Hg': 6.0, 'As': 2.0, 'S': 8.0, 'Cl': 2.0}\",\"('As', 'Cl', 'Hg', 'S')\",OTHERS,False\nmp-573514,\"{'Cs': 8.0, 'Sb': 8.0}\",\"('Cs', 'Sb')\",OTHERS,False\nmp-640447,\"{'Ce': 10.0, 'Ni': 2.0, 'Pb': 6.0}\",\"('Ce', 'Ni', 'Pb')\",OTHERS,False\nmp-771054,\"{'V': 12.0, 'P': 8.0, 'O': 32.0}\",\"('O', 'P', 'V')\",OTHERS,False\nmp-540287,\"{'Li': 4.0, 'Cr': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-757008,\"{'Mg': 1.0, 'Fe': 10.0, 'O': 16.0}\",\"('Fe', 'Mg', 'O')\",OTHERS,False\nmvc-4454,\"{'Ti': 4.0, 'Al': 2.0, 'O': 8.0}\",\"('Al', 'O', 'Ti')\",OTHERS,False\nmp-1209091,\"{'Rb': 2.0, 'Tb': 6.0, 'F': 20.0}\",\"('F', 'Rb', 'Tb')\",OTHERS,False\nmp-1213177,\"{'Cs': 4.0, 'Tm': 4.0, 'I': 12.0}\",\"('Cs', 'I', 'Tm')\",OTHERS,False\nmp-780199,\"{'Li': 5.0, 'Mn': 6.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1218665,\"{'Sr': 6.0, 'Ta': 8.0, 'Ti': 8.0, 'O': 42.0}\",\"('O', 'Sr', 'Ta', 'Ti')\",OTHERS,False\nmp-4972,\"{'Cu': 2.0, 'In': 1.0, 'Lu': 1.0}\",\"('Cu', 'In', 'Lu')\",OTHERS,False\nmp-1223169,\"{'La': 3.0, 'Y': 1.0, 'Hf': 4.0, 'O': 14.0}\",\"('Hf', 'La', 'O', 'Y')\",OTHERS,False\nmp-1203935,\"{'Fe': 4.0, 'S': 4.0, 'O': 32.0}\",\"('Fe', 'O', 'S')\",OTHERS,False\nmp-1183874,\"{'Ce': 6.0, 'Sc': 2.0}\",\"('Ce', 'Sc')\",OTHERS,False\nmp-223,\"{'O': 6.0, 'Ge': 3.0}\",\"('Ge', 'O')\",OTHERS,False\nmp-755172,\"{'Li': 5.0, 'V': 3.0, 'Fe': 2.0, 'O': 10.0}\",\"('Fe', 'Li', 'O', 'V')\",OTHERS,False\nmp-1194158,\"{'Er': 4.0, 'Mo': 4.0, 'Br': 4.0, 'O': 16.0}\",\"('Br', 'Er', 'Mo', 'O')\",OTHERS,False\nmp-1074738,\"{'Mg': 8.0, 'Si': 4.0}\",\"('Mg', 'Si')\",OTHERS,False\nmvc-1288,\"{'Ca': 4.0, 'V': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Ca', 'O', 'P', 'V')\",OTHERS,False\nmp-1076570,\"{'Sr': 7.0, 'Ca': 1.0, 'Ti': 7.0, 'Mn': 1.0, 'O': 24.0}\",\"('Ca', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1186604,\"{'Pm': 1.0, 'Lu': 1.0, 'Al': 2.0}\",\"('Al', 'Lu', 'Pm')\",OTHERS,False\nmp-1013705,\"{'Sr': 3.0, 'Bi': 1.0, 'As': 1.0}\",\"('As', 'Bi', 'Sr')\",OTHERS,False\nmp-866079,\"{'Mg': 1.0, 'Sc': 2.0, 'Ru': 1.0}\",\"('Mg', 'Ru', 'Sc')\",OTHERS,False\nmp-1190646,\"{'K': 4.0, 'Cu': 2.0, 'Te': 2.0, 'O': 14.0}\",\"('Cu', 'K', 'O', 'Te')\",OTHERS,False\nmp-1224855,\"{'Fe': 1.0, 'O': 2.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-1198448,\"{'Na': 4.0, 'Al': 12.0, 'Si': 12.0, 'H': 8.0, 'O': 48.0}\",\"('Al', 'H', 'Na', 'O', 'Si')\",OTHERS,False\nmp-30815,\"{'Al': 3.0, 'Pd': 2.0, 'La': 1.0}\",\"('Al', 'La', 'Pd')\",OTHERS,False\nmp-1106110,\"{'Eu': 8.0, 'S': 12.0}\",\"('Eu', 'S')\",OTHERS,False\nmp-862805,\"{'Pr': 1.0, 'Sn': 1.0, 'Au': 2.0}\",\"('Au', 'Pr', 'Sn')\",OTHERS,False\nZn 77 Mg 18 Hf 5,\"{'Zn': 77.0, 'Mg': 18.0, 'Hf': 5.0}\",\"('Hf', 'Mg', 'Zn')\",AC,False\nmp-1079890,\"{'Al': 4.0, 'Cu': 2.0, 'Ir': 2.0}\",\"('Al', 'Cu', 'Ir')\",OTHERS,False\nmp-1214638,\"{'Ba': 6.0, 'Fe': 2.0, 'Ru': 4.0, 'O': 18.0}\",\"('Ba', 'Fe', 'O', 'Ru')\",OTHERS,False\nmp-849734,\"{'Li': 2.0, 'V': 2.0, 'F': 8.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1183973,\"{'Ga': 3.0, 'Si': 1.0}\",\"('Ga', 'Si')\",OTHERS,False\nmp-1208086,\"{'Tm': 3.0, 'P': 6.0, 'Pd': 20.0}\",\"('P', 'Pd', 'Tm')\",OTHERS,False\nmp-561224,\"{'Te': 4.0, 'O': 8.0}\",\"('O', 'Te')\",OTHERS,False\nmp-3346,\"{'Zr': 2.0, 'Sb': 2.0, 'Ho': 2.0}\",\"('Ho', 'Sb', 'Zr')\",OTHERS,False\nmp-23918,\"{'H': 8.0, 'Na': 2.0, 'Ga': 2.0}\",\"('Ga', 'H', 'Na')\",OTHERS,False\nmp-1093912,\"{'Ca': 1.0, 'Hg': 2.0, 'Bi': 1.0}\",\"('Bi', 'Ca', 'Hg')\",OTHERS,False\nmp-763659,\"{'Li': 3.0, 'V': 2.0, 'Fe': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'V')\",OTHERS,False\nmp-1220867,\"{'Na': 2.0, 'Tl': 2.0, 'O': 2.0}\",\"('Na', 'O', 'Tl')\",OTHERS,False\nmp-24034,\"{'H': 12.0, 'Al': 2.0, 'K': 6.0}\",\"('Al', 'H', 'K')\",OTHERS,False\nmp-977324,\"{'Ga': 3.0, 'Ni': 20.0, 'B': 6.0}\",\"('B', 'Ga', 'Ni')\",OTHERS,False\nmp-1176897,\"{'Li': 14.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1181173,\"{'K': 16.0, 'Ag': 8.0, 'Sn': 12.0, 'S': 36.0, 'O': 8.0}\",\"('Ag', 'K', 'O', 'S', 'Sn')\",OTHERS,False\nmp-555885,\"{'Sr': 2.0, 'V': 8.0, 'Ag': 4.0, 'O': 24.0}\",\"('Ag', 'O', 'Sr', 'V')\",OTHERS,False\nmp-1197960,\"{'Bi': 24.0, 'S': 24.0, 'O': 108.0}\",\"('Bi', 'O', 'S')\",OTHERS,False\nmp-1025917,\"{'Mo': 1.0, 'W': 2.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-2562,\"{'Mn': 2.0, 'S': 2.0}\",\"('Mn', 'S')\",OTHERS,False\nmp-1216361,\"{'V': 4.0, 'P': 8.0, 'Pb': 4.0, 'O': 32.0}\",\"('O', 'P', 'Pb', 'V')\",OTHERS,False\nmp-1220506,\"{'Nd': 2.0, 'Fe': 15.0, 'Si': 2.0, 'H': 2.0}\",\"('Fe', 'H', 'Nd', 'Si')\",OTHERS,False\nmvc-14571,\"{'Ti': 2.0, 'Zn': 4.0, 'Sb': 2.0, 'O': 12.0}\",\"('O', 'Sb', 'Ti', 'Zn')\",OTHERS,False\nmp-1111985,\"{'K': 2.0, 'In': 1.0, 'Ag': 1.0, 'Cl': 6.0}\",\"('Ag', 'Cl', 'In', 'K')\",OTHERS,False\nmp-6809,\"{'O': 10.0, 'Si': 2.0, 'Ca': 2.0, 'Sn': 2.0}\",\"('Ca', 'O', 'Si', 'Sn')\",OTHERS,False\nmp-1018806,\"{'Mo': 2.0, 'Se': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Se')\",OTHERS,False\nAu 61.1 Ga 25.0 Ca 13.9,\"{'Au': 61.1, 'Ga': 25.0, 'Ca': 13.9}\",\"('Au', 'Ca', 'Ga')\",AC,False\nmp-21370,\"{'O': 6.0, 'Sb': 1.0, 'Ba': 2.0, 'Eu': 1.0}\",\"('Ba', 'Eu', 'O', 'Sb')\",OTHERS,False\nmp-9770,\"{'S': 24.0, 'Ge': 4.0, 'Ag': 32.0}\",\"('Ag', 'Ge', 'S')\",OTHERS,False\nmvc-8878,\"{'Mg': 2.0, 'Ti': 2.0, 'Cu': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Cu', 'Mg', 'O', 'P', 'Ti')\",OTHERS,False\nmp-7310,\"{'F': 12.0, 'Zr': 2.0, 'Pb': 2.0}\",\"('F', 'Pb', 'Zr')\",OTHERS,False\nmp-1016875,\"{'Cd': 1.0, 'Rh': 1.0, 'O': 3.0}\",\"('Cd', 'O', 'Rh')\",OTHERS,False\nmp-1186973,\"{'Sc': 1.0, 'Ag': 3.0}\",\"('Ag', 'Sc')\",OTHERS,False\nmp-862677,\"{'Li': 1.0, 'Ho': 1.0, 'Tl': 2.0}\",\"('Ho', 'Li', 'Tl')\",OTHERS,False\nmp-1224110,\"{'Ho': 6.0, 'Mn': 1.0, 'Ge': 2.0, 'S': 14.0}\",\"('Ge', 'Ho', 'Mn', 'S')\",OTHERS,False\nmp-850999,\"{'Na': 4.0, 'Cr': 16.0, 'O': 48.0}\",\"('Cr', 'Na', 'O')\",OTHERS,False\nmp-1245407,\"{'Y': 6.0, 'Ge': 12.0, 'N': 22.0}\",\"('Ge', 'N', 'Y')\",OTHERS,False\nmp-11869,\"{'Pd': 1.0, 'Sn': 1.0, 'Hf': 1.0}\",\"('Hf', 'Pd', 'Sn')\",OTHERS,False\nmp-704988,\"{'Ni': 4.0, 'P': 10.0, 'O': 30.0}\",\"('Ni', 'O', 'P')\",OTHERS,False\nmp-1105787,\"{'Pb': 8.0, 'O': 4.0, 'F': 8.0}\",\"('F', 'O', 'Pb')\",OTHERS,False\nmp-570017,\"{'Mg': 20.0, 'Au': 60.0}\",\"('Au', 'Mg')\",OTHERS,False\nmp-30474,\"{'Ca': 22.0, 'Ga': 14.0}\",\"('Ca', 'Ga')\",OTHERS,False\nmp-4198,\"{'O': 8.0, 'P': 2.0, 'Ag': 6.0}\",\"('Ag', 'O', 'P')\",OTHERS,False\nmvc-321,\"{'Mg': 2.0, 'Ti': 8.0, 'O': 12.0}\",\"('Mg', 'O', 'Ti')\",OTHERS,False\nmvc-12619,\"{'Mg': 4.0, 'Co': 4.0, 'O': 8.0}\",\"('Co', 'Mg', 'O')\",OTHERS,False\nmp-1104560,\"{'Dy': 4.0, 'Cd': 2.0, 'Te': 8.0}\",\"('Cd', 'Dy', 'Te')\",OTHERS,False\nmp-1223315,\"{'K': 1.0, 'Y': 1.0, 'Nb': 6.0, 'Cl': 18.0}\",\"('Cl', 'K', 'Nb', 'Y')\",OTHERS,False\nmp-685779,\"{'Sn': 5.0, 'Mo': 36.0, 'S': 48.0}\",\"('Mo', 'S', 'Sn')\",OTHERS,False\nmp-12894,\"{'O': 2.0, 'S': 1.0, 'Y': 2.0}\",\"('O', 'S', 'Y')\",OTHERS,False\nmp-764484,\"{'Li': 3.0, 'Mn': 3.0, 'V': 3.0, 'P': 12.0, 'O': 42.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1187398,\"{'Tc': 6.0, 'W': 2.0}\",\"('Tc', 'W')\",OTHERS,False\nmp-1174246,\"{'Li': 7.0, 'Co': 5.0, 'O': 12.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1102672,\"{'Sr': 8.0, 'Al': 4.0}\",\"('Al', 'Sr')\",OTHERS,False\nmp-1218475,\"{'Sr': 4.0, 'Mg': 1.0, 'Ti': 1.0, 'Fe': 2.0, 'As': 2.0, 'O': 6.0}\",\"('As', 'Fe', 'Mg', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1101621,\"{'As': 8.0, 'Pd': 10.0, 'Pb': 2.0}\",\"('As', 'Pb', 'Pd')\",OTHERS,False\nmp-775225,\"{'Nb': 3.0, 'Ni': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Nb', 'Ni', 'O', 'P')\",OTHERS,False\nmp-361,\"{'Cu': 4.0, 'O': 2.0}\",\"('Cu', 'O')\",OTHERS,False\nmp-755752,\"{'Rb': 8.0, 'Be': 8.0, 'O': 12.0}\",\"('Be', 'O', 'Rb')\",OTHERS,False\nmp-20627,\"{'Co': 1.0, 'Ga': 5.0, 'Yb': 1.0}\",\"('Co', 'Ga', 'Yb')\",OTHERS,False\nmp-27346,\"{'Al': 8.0, 'Cl': 32.0, 'Hg': 12.0}\",\"('Al', 'Cl', 'Hg')\",OTHERS,False\nmp-24816,\"{'H': 4.0, 'O': 10.0, 'K': 2.0, 'Cr': 2.0, 'Cd': 1.0}\",\"('Cd', 'Cr', 'H', 'K', 'O')\",OTHERS,False\nmp-1202708,\"{'Yb': 8.0, 'Ni': 2.0, 'B': 26.0}\",\"('B', 'Ni', 'Yb')\",OTHERS,False\nmp-1197925,\"{'Sr': 8.0, 'Ga': 4.0, 'P': 8.0, 'O': 32.0, 'F': 8.0}\",\"('F', 'Ga', 'O', 'P', 'Sr')\",OTHERS,False\nmp-1194266,\"{'K': 12.0, 'Sb': 4.0, 'S': 12.0}\",\"('K', 'S', 'Sb')\",OTHERS,False\nmp-8911,\"{'S': 2.0, 'Cu': 2.0, 'Ag': 2.0}\",\"('Ag', 'Cu', 'S')\",OTHERS,False\nmp-568790,\"{'Ca': 56.0, 'Ga': 4.0, 'As': 44.0}\",\"('As', 'Ca', 'Ga')\",OTHERS,False\nmp-4434,\"{'O': 12.0, 'Al': 4.0, 'Tb': 4.0}\",\"('Al', 'O', 'Tb')\",OTHERS,False\nmp-1039108,\"{'Ca': 4.0, 'Mg': 8.0}\",\"('Ca', 'Mg')\",OTHERS,False\nmp-1181373,\"{'H': 12.0, 'N': 8.0, 'O': 18.0}\",\"('H', 'N', 'O')\",OTHERS,False\nmp-1189560,\"{'Y': 4.0, 'Si': 12.0}\",\"('Si', 'Y')\",OTHERS,False\nmp-1175317,\"{'Li': 7.0, 'Mn': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nZn 55 Mg 40 Nd 5,\"{'Zn': 55.0, 'Mg': 40.0, 'Nd': 5.0}\",\"('Mg', 'Nd', 'Zn')\",QC,False\nmvc-10699,\"{'Ca': 1.0, 'Sb': 4.0, 'O': 8.0}\",\"('Ca', 'O', 'Sb')\",OTHERS,False\nmp-756318,\"{'Al': 4.0, 'Co': 2.0, 'Cl': 16.0}\",\"('Al', 'Cl', 'Co')\",OTHERS,False\nmp-767521,\"{'Na': 4.0, 'In': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'In', 'Na', 'O', 'P')\",OTHERS,False\nmp-861884,\"{'Ac': 1.0, 'Ga': 1.0, 'Te': 2.0}\",\"('Ac', 'Ga', 'Te')\",OTHERS,False\nmp-1077942,\"{'Rb': 2.0, 'Te': 1.0, 'Se': 4.0}\",\"('Rb', 'Se', 'Te')\",OTHERS,False\nmp-759877,\"{'Li': 4.0, 'Cu': 1.0, 'F': 7.0}\",\"('Cu', 'F', 'Li')\",OTHERS,False\nmp-1214815,\"{'Co': 2.0, 'N': 8.0, 'F': 24.0}\",\"('Co', 'F', 'N')\",OTHERS,False\nmp-1211272,\"{'La': 6.0, 'Nb': 2.0, 'Cl': 6.0, 'O': 12.0}\",\"('Cl', 'La', 'Nb', 'O')\",OTHERS,False\nmp-1185724,\"{'Mg': 16.0, 'Mn': 1.0, 'Al': 12.0}\",\"('Al', 'Mg', 'Mn')\",OTHERS,False\nmp-6265,\"{'O': 6.0, 'Sb': 1.0, 'Ba': 2.0, 'Tb': 1.0}\",\"('Ba', 'O', 'Sb', 'Tb')\",OTHERS,False\nmp-22749,\"{'C': 4.0, 'Mn': 10.0}\",\"('C', 'Mn')\",OTHERS,False\nmp-1098218,\"{'Mg': 30.0, 'Cu': 1.0, 'Si': 1.0, 'O': 32.0}\",\"('Cu', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1216181,\"{'Y': 2.0, 'B': 6.0, 'Rh': 9.0}\",\"('B', 'Rh', 'Y')\",OTHERS,False\nmp-1207848,\"{'Y': 12.0, 'Ge': 8.0, 'Rh': 8.0}\",\"('Ge', 'Rh', 'Y')\",OTHERS,False\nmp-549490,\"{'O': 5.0, 'Nb': 4.0, 'K': 1.0, 'F': 1.0}\",\"('F', 'K', 'Nb', 'O')\",OTHERS,False\nmp-1184572,\"{'Hf': 1.0, 'Mg': 1.0, 'Pt': 2.0}\",\"('Hf', 'Mg', 'Pt')\",OTHERS,False\nmp-761175,\"{'Na': 2.0, 'Ni': 8.0, 'H': 18.0, 'C': 6.0, 'O': 30.0}\",\"('C', 'H', 'Na', 'Ni', 'O')\",OTHERS,False\nmp-567849,\"{'Er': 4.0, 'Al': 6.0, 'Co': 2.0}\",\"('Al', 'Co', 'Er')\",OTHERS,False\nmp-1038570,\"{'Mg': 30.0, 'Cr': 1.0, 'Cd': 1.0, 'O': 32.0}\",\"('Cd', 'Cr', 'Mg', 'O')\",OTHERS,False\nmp-567787,\"{'Li': 1.0, 'In': 1.0, 'Ag': 2.0}\",\"('Ag', 'In', 'Li')\",OTHERS,False\nmp-15919,\"{'Be': 12.0, 'O': 48.0, 'P': 12.0, 'Ag': 12.0}\",\"('Ag', 'Be', 'O', 'P')\",OTHERS,False\nmp-1208371,\"{'Tl': 4.0, 'N': 8.0, 'Cl': 20.0, 'O': 4.0}\",\"('Cl', 'N', 'O', 'Tl')\",OTHERS,False\nmp-631449,\"{'Li': 1.0, 'Ta': 1.0, 'Be': 1.0}\",\"('Be', 'Li', 'Ta')\",OTHERS,False\nmp-561848,\"{'C': 24.0, 'O': 16.0}\",\"('C', 'O')\",OTHERS,False\nmp-21278,\"{'In': 4.0, 'Ce': 2.0, 'Ir': 2.0}\",\"('Ce', 'In', 'Ir')\",OTHERS,False\nmp-1208045,\"{'Tl': 1.0, 'Fe': 1.0, 'S': 2.0, 'O': 8.0}\",\"('Fe', 'O', 'S', 'Tl')\",OTHERS,False\nmp-1079141,\"{'Pr': 2.0, 'Ge': 4.0, 'Ir': 4.0}\",\"('Ge', 'Ir', 'Pr')\",OTHERS,False\nmp-754151,\"{'V': 2.0, 'O': 2.0, 'F': 2.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-979073,\"{'Tm': 1.0, 'Mg': 2.0, 'Sc': 1.0}\",\"('Mg', 'Sc', 'Tm')\",OTHERS,False\nmp-29505,\"{'O': 12.0, 'Cs': 12.0, 'Bi': 4.0}\",\"('Bi', 'Cs', 'O')\",OTHERS,False\nmp-1175732,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmvc-1912,\"{'Y': 1.0, 'Cu': 3.0, 'Bi': 4.0, 'O': 12.0}\",\"('Bi', 'Cu', 'O', 'Y')\",OTHERS,False\nmp-27552,\"{'I': 6.0, 'Tl': 2.0, 'Pb': 2.0}\",\"('I', 'Pb', 'Tl')\",OTHERS,False\nmp-672254,\"{'Ca': 3.0, 'Pd': 3.0, 'Pb': 3.0}\",\"('Ca', 'Pb', 'Pd')\",OTHERS,False\nmp-1218038,\"{'Ta': 3.0, 'V': 7.0, 'Si': 6.0}\",\"('Si', 'Ta', 'V')\",OTHERS,False\nmp-778109,\"{'Li': 12.0, 'Nb': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'Nb', 'O', 'P')\",OTHERS,False\nmp-1019087,\"{'Ca': 2.0, 'Sn': 2.0, 'Hg': 2.0}\",\"('Ca', 'Hg', 'Sn')\",OTHERS,False\nmp-1246920,\"{'Pb': 2.0, 'C': 16.0, 'N': 12.0}\",\"('C', 'N', 'Pb')\",OTHERS,False\nmp-1212980,\"{'Eu': 6.0, 'In': 6.0, 'O': 18.0}\",\"('Eu', 'In', 'O')\",OTHERS,False\nmp-772294,\"{'Na': 10.0, 'Li': 2.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'Na', 'O', 'P')\",OTHERS,False\nmp-1074753,\"{'Mg': 8.0, 'Si': 4.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1247069,\"{'Cd': 6.0, 'Ga': 4.0, 'N': 8.0}\",\"('Cd', 'Ga', 'N')\",OTHERS,False\nmp-1112710,\"{'Cs': 2.0, 'K': 1.0, 'Sc': 1.0, 'I': 6.0}\",\"('Cs', 'I', 'K', 'Sc')\",OTHERS,False\nmp-862720,\"{'Sr': 2.0, 'Cd': 1.0, 'In': 1.0}\",\"('Cd', 'In', 'Sr')\",OTHERS,False\nmp-1095596,\"{'Ca': 2.0, 'B': 1.0, 'As': 1.0, 'O': 8.0}\",\"('As', 'B', 'Ca', 'O')\",OTHERS,False\nmp-2333,\"{'Pd': 3.0, 'Nd': 1.0}\",\"('Nd', 'Pd')\",OTHERS,False\nmvc-2075,\"{'Mg': 2.0, 'Sn': 9.0, 'O': 13.0}\",\"('Mg', 'O', 'Sn')\",OTHERS,False\nmp-1199234,\"{'Tl': 4.0, 'Mo': 30.0, 'Se': 38.0}\",\"('Mo', 'Se', 'Tl')\",OTHERS,False\nmp-1214395,\"{'Ba': 8.0, 'In': 8.0, 'F': 40.0}\",\"('Ba', 'F', 'In')\",OTHERS,False\nmp-1203378,\"{'Cs': 14.0, 'In': 6.0, 'As': 12.0}\",\"('As', 'Cs', 'In')\",OTHERS,False\nAl 57.3 Cu 31.4 Ru 11.3,\"{'Al': 57.3, 'Cu': 31.4, 'Ru': 11.3}\",\"('Al', 'Cu', 'Ru')\",AC,False\nmp-1186671,\"{'Pm': 1.0, 'Y': 3.0}\",\"('Pm', 'Y')\",OTHERS,False\nmp-1197938,\"{'Co': 6.0, 'B': 14.0, 'O': 26.0, 'F': 2.0}\",\"('B', 'Co', 'F', 'O')\",OTHERS,False\nmp-1173940,\"{'Li': 3.0, 'Mn': 1.0, 'Co': 2.0, 'O': 6.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1028535,\"{'Te': 2.0, 'Mo': 1.0, 'W': 3.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-973626,\"{'Hg': 6.0, 'Au': 2.0}\",\"('Au', 'Hg')\",OTHERS,False\nmp-758112,\"{'Co': 2.0, 'Ni': 3.0, 'Sb': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Co', 'Ni', 'O', 'P', 'Sb')\",OTHERS,False\nmp-722865,\"{'H': 32.0, 'Se': 8.0, 'N': 8.0, 'O': 20.0}\",\"('H', 'N', 'O', 'Se')\",OTHERS,False\nmp-1222794,\"{'La': 1.0, 'Ga': 3.0, 'Pt': 1.0}\",\"('Ga', 'La', 'Pt')\",OTHERS,False\nmp-567348,\"{'Tm': 1.0, 'In': 1.0, 'Pd': 2.0}\",\"('In', 'Pd', 'Tm')\",OTHERS,False\nmp-1202721,\"{'Ag': 4.0, 'H': 24.0, 'C': 8.0, 'N': 20.0, 'O': 16.0}\",\"('Ag', 'C', 'H', 'N', 'O')\",OTHERS,False\nmp-6562,\"{'O': 4.0, 'Cu': 1.0, 'Ba': 2.0, 'Hg': 1.0}\",\"('Ba', 'Cu', 'Hg', 'O')\",OTHERS,False\nmp-669389,\"{'Sr': 6.0, 'In': 2.0, 'Rh': 2.0, 'O': 12.0}\",\"('In', 'O', 'Rh', 'Sr')\",OTHERS,False\nmp-1095566,\"{'La': 2.0, 'Co': 8.0, 'B': 2.0}\",\"('B', 'Co', 'La')\",OTHERS,False\nmp-571514,\"{'Cd': 8.0, 'I': 16.0}\",\"('Cd', 'I')\",OTHERS,False\nmp-1213682,\"{'Cs': 1.0, 'Er': 1.0, 'Mo': 2.0, 'O': 8.0}\",\"('Cs', 'Er', 'Mo', 'O')\",OTHERS,False\nmp-973958,\"{'K': 1.0, 'Ru': 1.0, 'O': 3.0}\",\"('K', 'O', 'Ru')\",OTHERS,False\nmp-773087,\"{'Li': 2.0, 'Mg': 1.0, 'Cu': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Cu', 'Li', 'Mg', 'O', 'Si')\",OTHERS,False\nCd 65 Mg 20 Er 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Er': 15.0}\",\"('Cd', 'Er', 'Mg')\",QC,False\nmvc-16726,\"{'Al': 2.0, 'Co': 4.0, 'S': 8.0}\",\"('Al', 'Co', 'S')\",OTHERS,False\nmp-1228149,\"{'Ba': 3.0, 'Sr': 9.0, 'Al': 4.0, 'O': 16.0, 'F': 4.0}\",\"('Al', 'Ba', 'F', 'O', 'Sr')\",OTHERS,False\nmp-1228037,\"{'Ba': 1.0, 'Ca': 1.0, 'Dy': 2.0, 'F': 10.0}\",\"('Ba', 'Ca', 'Dy', 'F')\",OTHERS,False\nmp-1195436,\"{'Cd': 12.0, 'B': 4.0, 'P': 4.0, 'O': 28.0}\",\"('B', 'Cd', 'O', 'P')\",OTHERS,False\nmp-389,\"{'Si': 4.0, 'Pd': 4.0}\",\"('Pd', 'Si')\",OTHERS,False\nmp-1200220,\"{'Al': 24.0, 'Ir': 8.0}\",\"('Al', 'Ir')\",OTHERS,False\nmp-1073599,\"{'Mg': 8.0, 'Si': 16.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-862360,\"{'Sc': 2.0, 'Ni': 1.0, 'Ir': 1.0}\",\"('Ir', 'Ni', 'Sc')\",OTHERS,False\nmp-569435,\"{'K': 4.0, 'Bi': 4.0, 'P': 8.0, 'Se': 24.0}\",\"('Bi', 'K', 'P', 'Se')\",OTHERS,False\nmp-1113276,\"{'Rb': 2.0, 'Bi': 1.0, 'Au': 1.0, 'F': 6.0}\",\"('Au', 'Bi', 'F', 'Rb')\",OTHERS,False\nmp-1029750,\"{'Sr': 6.0, 'Ru': 2.0, 'N': 6.0}\",\"('N', 'Ru', 'Sr')\",OTHERS,False\nmp-1173734,\"{'Na': 1.0, 'Ca': 3.0, 'Fe': 4.0, 'Si': 8.0, 'O': 24.0}\",\"('Ca', 'Fe', 'Na', 'O', 'Si')\",OTHERS,False\nmp-558475,\"{'K': 16.0, 'Nb': 8.0, 'S': 40.0, 'O': 4.0}\",\"('K', 'Nb', 'O', 'S')\",OTHERS,False\nmp-11366,\"{'Cu': 2.0, 'Zn': 1.0, 'Zr': 1.0}\",\"('Cu', 'Zn', 'Zr')\",OTHERS,False\nmp-756488,\"{'Co': 4.0, 'O': 8.0}\",\"('Co', 'O')\",OTHERS,False\nmp-22392,\"{'F': 2.0, 'Cu': 2.0, 'Se': 2.0, 'Sm': 2.0}\",\"('Cu', 'F', 'Se', 'Sm')\",OTHERS,False\nmp-1201992,\"{'La': 2.0, 'V': 2.0, 'H': 4.0, 'I': 8.0, 'O': 30.0}\",\"('H', 'I', 'La', 'O', 'V')\",OTHERS,False\nmp-1215891,\"{'Y': 1.0, 'Th': 1.0}\",\"('Th', 'Y')\",OTHERS,False\nmp-774859,\"{'Li': 4.0, 'Nb': 4.0, 'P': 4.0, 'O': 20.0}\",\"('Li', 'Nb', 'O', 'P')\",OTHERS,False\nmp-690667,\"{'Ag': 7.0, 'N': 1.0, 'O': 8.0}\",\"('Ag', 'N', 'O')\",OTHERS,False\nmp-867293,\"{'Li': 1.0, 'Co': 2.0, 'Si': 1.0}\",\"('Co', 'Li', 'Si')\",OTHERS,False\nmp-690540,\"{'V': 2.0, 'Bi': 4.0, 'O': 11.0}\",\"('Bi', 'O', 'V')\",OTHERS,False\nmp-654900,\"{'Cu': 4.0, 'H': 36.0, 'C': 16.0, 'N': 4.0, 'O': 24.0}\",\"('C', 'Cu', 'H', 'N', 'O')\",OTHERS,False\nmp-540631,\"{'K': 2.0, 'Ta': 2.0, 'Ge': 6.0, 'O': 18.0}\",\"('Ge', 'K', 'O', 'Ta')\",OTHERS,False\nmp-1077413,\"{'Na': 2.0, 'P': 2.0, 'O': 2.0}\",\"('Na', 'O', 'P')\",OTHERS,False\nmp-21437,\"{'O': 12.0, 'Fe': 4.0, 'Te': 2.0}\",\"('Fe', 'O', 'Te')\",OTHERS,False\nmp-1219732,\"{'Pt': 4.0, 'Se': 1.0, 'S': 3.0}\",\"('Pt', 'S', 'Se')\",OTHERS,False\nmp-582119,\"{'Tb': 16.0, 'In': 4.0, 'Rh': 4.0}\",\"('In', 'Rh', 'Tb')\",OTHERS,False\nmp-1219236,\"{'Re': 6.0, 'Br': 16.0, 'Cl': 2.0}\",\"('Br', 'Cl', 'Re')\",OTHERS,False\nmp-22428,\"{'Sr': 4.0, 'Ce': 4.0, 'O': 12.0}\",\"('Ce', 'O', 'Sr')\",OTHERS,False\nmp-867873,\"{'Li': 1.0, 'Tm': 2.0, 'Al': 1.0}\",\"('Al', 'Li', 'Tm')\",OTHERS,False\nmp-21827,\"{'Cu': 8.0, 'Se': 32.0, 'In': 18.0}\",\"('Cu', 'In', 'Se')\",OTHERS,False\nmp-1027137,\"{'Te': 2.0, 'Mo': 3.0, 'W': 1.0, 'Se': 4.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-675325,\"{'Al': 1.0, 'Ag': 9.0, 'S': 6.0}\",\"('Ag', 'Al', 'S')\",OTHERS,False\nmp-972119,\"{'Sr': 1.0, 'Ca': 1.0, 'Tl': 2.0}\",\"('Ca', 'Sr', 'Tl')\",OTHERS,False\nmp-1174250,\"{'Li': 8.0, 'Co': 6.0, 'O': 14.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-557509,\"{'Mn': 4.0, 'H': 44.0, 'C': 20.0, 'N': 4.0, 'O': 24.0}\",\"('C', 'H', 'Mn', 'N', 'O')\",OTHERS,False\nmp-626791,\"{'V': 4.0, 'H': 4.0, 'O': 8.0}\",\"('H', 'O', 'V')\",OTHERS,False\nmp-1232167,\"{'Mg': 8.0, 'Sc': 16.0, 'Se': 32.0}\",\"('Mg', 'Sc', 'Se')\",OTHERS,False\nmp-1098705,\"{'Ce': 4.0, 'Se': 8.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-1184689,\"{'Ho': 2.0, 'Ni': 1.0, 'Ru': 1.0}\",\"('Ho', 'Ni', 'Ru')\",OTHERS,False\nmp-1208379,\"{'Tb': 4.0, 'W': 4.0, 'O': 20.0}\",\"('O', 'Tb', 'W')\",OTHERS,False\nmp-778265,\"{'Li': 4.0, 'Mn': 3.0, 'Fe': 1.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-27017,\"{'Li': 8.0, 'O': 32.0, 'P': 8.0, 'Sn': 8.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1184920,\"{'Ho': 2.0, 'Os': 6.0}\",\"('Ho', 'Os')\",OTHERS,False\nmp-18854,\"{'O': 4.0, 'Cr': 1.0, 'Sr': 2.0}\",\"('Cr', 'O', 'Sr')\",OTHERS,False\nmp-768869,\"{'Li': 8.0, 'V': 4.0, 'B': 4.0, 'O': 16.0}\",\"('B', 'Li', 'O', 'V')\",OTHERS,False\nmvc-5152,\"{'Mg': 6.0, 'Cu': 12.0, 'O': 24.0}\",\"('Cu', 'Mg', 'O')\",OTHERS,False\nmp-570419,\"{'Zr': 6.0, 'Al': 6.0, 'C': 10.0}\",\"('Al', 'C', 'Zr')\",OTHERS,False\nmp-639511,\"{'Si': 32.0, 'O': 64.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1213744,\"{'Cr': 2.0, 'Cu': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Cr', 'Cu', 'O', 'W')\",OTHERS,False\nmp-770065,\"{'Gd': 8.0, 'Ti': 4.0, 'O': 20.0}\",\"('Gd', 'O', 'Ti')\",OTHERS,False\nmp-1227586,\"{'Ca': 4.0, 'Fe': 4.0, 'O': 10.0}\",\"('Ca', 'Fe', 'O')\",OTHERS,False\nmp-1073454,\"{'Mg': 8.0, 'Si': 16.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1018683,\"{'Dy': 2.0, 'Se': 4.0}\",\"('Dy', 'Se')\",OTHERS,False\nAl 71.8 Co 21.1 Ni 7.1,\"{'Al': 71.8, 'Co': 21.1, 'Ni': 7.1}\",\"('Al', 'Co', 'Ni')\",AC,False\nmp-772993,\"{'Li': 2.0, 'Ti': 7.0, 'Nb': 6.0, 'O': 30.0}\",\"('Li', 'Nb', 'O', 'Ti')\",OTHERS,False\nmp-1246702,\"{'Ca': 10.0, 'Co': 4.0, 'N': 12.0}\",\"('Ca', 'Co', 'N')\",OTHERS,False\nmp-1215756,\"{'Zr': 6.0, 'Bi': 2.0, 'F': 30.0}\",\"('Bi', 'F', 'Zr')\",OTHERS,False\nmp-1198330,\"{'Cu': 1.0, 'C': 32.0, 'N': 8.0, 'F': 16.0}\",\"('C', 'Cu', 'F', 'N')\",OTHERS,False\nmp-1186050,\"{'Na': 3.0, 'Hg': 1.0}\",\"('Hg', 'Na')\",OTHERS,False\nmp-571638,\"{'Rb': 4.0, 'Cu': 2.0, 'Br': 4.0, 'Cl': 4.0}\",\"('Br', 'Cl', 'Cu', 'Rb')\",OTHERS,False\nmp-13361,\"{'O': 8.0, 'P': 2.0, 'Cu': 1.0, 'Cd': 2.0}\",\"('Cd', 'Cu', 'O', 'P')\",OTHERS,False\nmp-1224834,\"{'Ga': 1.0, 'Si': 1.0, 'Ni': 6.0}\",\"('Ga', 'Ni', 'Si')\",OTHERS,False\nmp-861982,\"{'Pa': 1.0, 'Ga': 3.0}\",\"('Ga', 'Pa')\",OTHERS,False\nmp-29987,\"{'Al': 4.0, 'I': 4.0, 'La': 6.0}\",\"('Al', 'I', 'La')\",OTHERS,False\nmp-695492,\"{'Ca': 2.0, 'Fe': 3.0, 'Sb': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Ca', 'Fe', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1174526,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1193030,\"{'Ce': 8.0, 'Co': 2.0, 'S': 14.0}\",\"('Ce', 'Co', 'S')\",OTHERS,False\nmp-677743,\"{'Na': 12.0, 'Ca': 8.0, 'Ta': 12.0, 'Ti': 8.0, 'O': 60.0}\",\"('Ca', 'Na', 'O', 'Ta', 'Ti')\",OTHERS,False\nmvc-10720,\"{'Mg': 1.0, 'Bi': 4.0, 'O': 8.0}\",\"('Bi', 'Mg', 'O')\",OTHERS,False\nmvc-10393,\"{'Ho': 2.0, 'W': 4.0, 'O': 12.0}\",\"('Ho', 'O', 'W')\",OTHERS,False\nmp-1213571,\"{'Cs': 4.0, 'Np': 4.0, 'Mo': 4.0, 'O': 24.0}\",\"('Cs', 'Mo', 'Np', 'O')\",OTHERS,False\nmp-1111173,\"{'K': 3.0, 'In': 1.0, 'Cl': 6.0}\",\"('Cl', 'In', 'K')\",OTHERS,False\nmp-1193370,\"{'Nb': 8.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cu', 'Nb', 'S')\",OTHERS,False\nmp-1174287,\"{'Li': 8.0, 'Mn': 6.0, 'O': 14.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1222993,\"{'La': 1.0, 'Eu': 1.0, 'Pd': 6.0}\",\"('Eu', 'La', 'Pd')\",OTHERS,False\nmp-768940,\"{'Cr': 8.0, 'S': 12.0, 'O': 48.0}\",\"('Cr', 'O', 'S')\",OTHERS,False\nmp-1245461,\"{'Cd': 8.0, 'Ru': 2.0, 'N': 8.0}\",\"('Cd', 'N', 'Ru')\",OTHERS,False\nmp-758200,\"{'Li': 8.0, 'Ni': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-772973,\"{'Li': 4.0, 'P': 20.0, 'W': 4.0, 'O': 60.0}\",\"('Li', 'O', 'P', 'W')\",OTHERS,False\nmp-780099,\"{'Fe': 8.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-723120,\"{'Ba': 2.0, 'H': 12.0, 'C': 8.0, 'O': 14.0}\",\"('Ba', 'C', 'H', 'O')\",OTHERS,False\nmp-20512,\"{'Fe': 2.0, 'Sn': 2.0}\",\"('Fe', 'Sn')\",OTHERS,False\nmp-1014339,\"{'Cr': 12.0, 'N': 24.0}\",\"('Cr', 'N')\",OTHERS,False\nmp-1223899,\"{'Ho': 1.0, 'Al': 1.0, 'Ni': 4.0}\",\"('Al', 'Ho', 'Ni')\",OTHERS,False\nmp-1105724,\"{'Ba': 4.0, 'Er': 2.0, 'Ga': 2.0, 'Te': 10.0}\",\"('Ba', 'Er', 'Ga', 'Te')\",OTHERS,False\nmp-1207967,\"{'Y': 12.0, 'Cr': 8.0, 'Ga': 12.0, 'O': 48.0}\",\"('Cr', 'Ga', 'O', 'Y')\",OTHERS,False\nmp-14500,\"{'As': 12.0, 'Sr': 2.0, 'Pt': 8.0}\",\"('As', 'Pt', 'Sr')\",OTHERS,False\nmp-1215907,\"{'Y': 1.0, 'Ag': 1.0, 'Te': 2.0}\",\"('Ag', 'Te', 'Y')\",OTHERS,False\nmp-1209388,\"{'Sc': 8.0, 'In': 4.0, 'Au': 8.0}\",\"('Au', 'In', 'Sc')\",OTHERS,False\nmp-761102,\"{'Na': 3.0, 'Mn': 20.0, 'O': 40.0}\",\"('Mn', 'Na', 'O')\",OTHERS,False\nmp-760078,\"{'Ba': 4.0, 'Ti': 11.0, 'O': 26.0}\",\"('Ba', 'O', 'Ti')\",OTHERS,False\nmp-1211068,\"{'Mn': 2.0, 'P': 4.0, 'O': 20.0}\",\"('Mn', 'O', 'P')\",OTHERS,False\nmp-21272,\"{'Ni': 1.0, 'Sb': 1.0, 'Er': 1.0}\",\"('Er', 'Ni', 'Sb')\",OTHERS,False\nmp-1247291,\"{'Mg': 2.0, 'V': 3.0, 'In': 1.0, 'S': 8.0}\",\"('In', 'Mg', 'S', 'V')\",OTHERS,False\nmp-708135,\"{'Y': 1.0, 'H': 16.0, 'C': 4.0, 'N': 9.0, 'O': 16.0}\",\"('C', 'H', 'N', 'O', 'Y')\",OTHERS,False\nmp-623006,\"{'U': 1.0, 'Ga': 5.0, 'Ir': 1.0}\",\"('Ga', 'Ir', 'U')\",OTHERS,False\nmp-973850,\"{'Ho': 5.0, 'Ga': 15.0}\",\"('Ga', 'Ho')\",OTHERS,False\nmp-1200889,\"{'Ti': 8.0, 'Bi': 8.0, 'O': 28.0}\",\"('Bi', 'O', 'Ti')\",OTHERS,False\nmp-23057,\"{'Li': 2.0, 'Br': 4.0, 'Cs': 2.0}\",\"('Br', 'Cs', 'Li')\",OTHERS,False\nmp-7531,\"{'O': 13.0, 'Al': 6.0, 'Ca': 4.0}\",\"('Al', 'Ca', 'O')\",OTHERS,False\nmp-1196701,\"{'Na': 4.0, 'Al': 4.0, 'Si': 6.0, 'O': 28.0}\",\"('Al', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1093886,\"{'Ta': 2.0, 'Mn': 1.0, 'Ru': 1.0}\",\"('Mn', 'Ru', 'Ta')\",OTHERS,False\nmp-1218927,\"{'Sr': 10.0, 'Cu': 5.0, 'Mo': 1.0, 'W': 4.0, 'O': 30.0}\",\"('Cu', 'Mo', 'O', 'Sr', 'W')\",OTHERS,False\nmp-1102537,\"{'Nb': 4.0, 'V': 4.0, 'P': 4.0}\",\"('Nb', 'P', 'V')\",OTHERS,False\nmp-755111,\"{'Li': 1.0, 'V': 4.0, 'O': 1.0, 'F': 11.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-863971,\"{'K': 2.0, 'Mn': 3.0, 'P': 4.0, 'H': 4.0, 'O': 12.0}\",\"('H', 'K', 'Mn', 'O', 'P')\",OTHERS,False\nmp-541338,\"{'Al': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Al', 'O', 'P')\",OTHERS,False\nmp-759426,\"{'Li': 4.0, 'V': 1.0, 'P': 6.0, 'O': 18.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-864807,\"{'Hf': 1.0, 'Zn': 1.0, 'Ni': 2.0}\",\"('Hf', 'Ni', 'Zn')\",OTHERS,False\nmp-1221286,\"{'Na': 3.0, 'Mn': 2.0, 'B': 1.0, 'O': 6.0}\",\"('B', 'Mn', 'Na', 'O')\",OTHERS,False\nmp-1261478,\"{'Al': 4.0, 'Ni': 12.0, 'O': 24.0}\",\"('Al', 'Ni', 'O')\",OTHERS,False\nmp-1181996,{'C': 2.0},\"('C',)\",OTHERS,False\nmp-1218849,\"{'Sr': 2.0, 'Gd': 1.0, 'Cu': 2.0, 'Ir': 1.0, 'O': 8.0}\",\"('Cu', 'Gd', 'Ir', 'O', 'Sr')\",OTHERS,False\nZn 75 Sc 15 Co 10,\"{'Zn': 75.0, 'Sc': 15.0, 'Co': 10.0}\",\"('Co', 'Sc', 'Zn')\",QC,False\nmp-1174059,\"{'Li': 5.0, 'Mn': 1.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-755159,\"{'Tl': 4.0, 'Ge': 4.0, 'O': 14.0}\",\"('Ge', 'O', 'Tl')\",OTHERS,False\nmp-18819,\"{'O': 7.0, 'P': 2.0, 'Ni': 2.0}\",\"('Ni', 'O', 'P')\",OTHERS,False\nmp-766000,\"{'Li': 1.0, 'V': 1.0, 'Cr': 1.0, 'P': 4.0, 'O': 14.0}\",\"('Cr', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-18987,\"{'Li': 2.0, 'O': 14.0, 'P': 4.0, 'Mo': 2.0}\",\"('Li', 'Mo', 'O', 'P')\",OTHERS,False\nmp-755273,\"{'Li': 4.0, 'Fe': 8.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-643923,\"{'Zr': 8.0, 'Co': 4.0, 'H': 20.0}\",\"('Co', 'H', 'Zr')\",OTHERS,False\nmp-1175059,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmvc-4380,\"{'Ca': 4.0, 'Ta': 2.0, 'Ni': 2.0, 'O': 12.0}\",\"('Ca', 'Ni', 'O', 'Ta')\",OTHERS,False\nmp-1181255,\"{'Li': 16.0, 'P': 16.0, 'O': 68.0}\",\"('Li', 'O', 'P')\",OTHERS,False\nmp-753794,\"{'Hf': 4.0, 'P': 4.0, 'O': 18.0}\",\"('Hf', 'O', 'P')\",OTHERS,False\nmp-559287,\"{'Ho': 4.0, 'Sn': 6.0, 'Pb': 6.0, 'S': 24.0}\",\"('Ho', 'Pb', 'S', 'Sn')\",OTHERS,False\nAl 65 Cu 20 Ir 15,\"{'Al': 65.0, 'Cu': 20.0, 'Ir': 15.0}\",\"('Al', 'Cu', 'Ir')\",QC,False\nmp-761140,\"{'Na': 4.0, 'Ti': 7.0, 'O': 16.0}\",\"('Na', 'O', 'Ti')\",OTHERS,False\nmp-622086,\"{'La': 8.0, 'Ge': 4.0, 'S': 20.0}\",\"('Ge', 'La', 'S')\",OTHERS,False\nmvc-5715,\"{'Mg': 4.0, 'Cu': 2.0, 'Ir': 2.0, 'O': 12.0}\",\"('Cu', 'Ir', 'Mg', 'O')\",OTHERS,False\nmp-18084,\"{'O': 20.0, 'Zn': 4.0, 'Ba': 4.0, 'Tb': 8.0}\",\"('Ba', 'O', 'Tb', 'Zn')\",OTHERS,False\nmp-1208803,\"{'Sr': 2.0, 'La': 1.0, 'Cu': 2.0, 'Hg': 1.0, 'O': 6.0}\",\"('Cu', 'Hg', 'La', 'O', 'Sr')\",OTHERS,False\nmp-758428,\"{'Ti': 6.0, 'Nb': 2.0, 'O': 16.0}\",\"('Nb', 'O', 'Ti')\",OTHERS,False\nmp-1101460,\"{'Nb': 4.0, 'Cr': 4.0, 'O': 16.0}\",\"('Cr', 'Nb', 'O')\",OTHERS,False\nmp-1177320,\"{'Li': 8.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-625762,\"{'Al': 8.0, 'H': 24.0, 'O': 24.0}\",\"('Al', 'H', 'O')\",OTHERS,False\nmp-1207411,\"{'Zr': 12.0, 'Ga': 4.0, 'Ni': 2.0, 'H': 20.0}\",\"('Ga', 'H', 'Ni', 'Zr')\",OTHERS,False\nmp-1183475,\"{'Ca': 2.0, 'Br': 2.0}\",\"('Br', 'Ca')\",OTHERS,False\nmp-979751,\"{'Ta': 1.0, 'Ti': 1.0, 'Fe': 2.0}\",\"('Fe', 'Ta', 'Ti')\",OTHERS,False\nmp-1222066,\"{'Mg': 1.0, 'Ti': 4.0, 'Mn': 1.0, 'Zn': 1.0, 'Ni': 1.0, 'O': 12.0}\",\"('Mg', 'Mn', 'Ni', 'O', 'Ti', 'Zn')\",OTHERS,False\nmp-1214618,\"{'Ba': 6.0, 'Cd': 2.0, 'Ir': 4.0, 'O': 18.0}\",\"('Ba', 'Cd', 'Ir', 'O')\",OTHERS,False\nmp-1227456,\"{'Ca': 10.0, 'Ge': 6.0, 'F': 1.0}\",\"('Ca', 'F', 'Ge')\",OTHERS,False\nmp-1246475,\"{'Ga': 4.0, 'Fe': 4.0, 'N': 8.0}\",\"('Fe', 'Ga', 'N')\",OTHERS,False\nmp-20745,{'Pb': 2.0},\"('Pb',)\",OTHERS,False\nmp-1185981,\"{'Mn': 2.0, 'Ir': 1.0, 'Rh': 1.0}\",\"('Ir', 'Mn', 'Rh')\",OTHERS,False\nmp-28274,\"{'F': 24.0, 'In': 4.0, 'Ba': 6.0}\",\"('Ba', 'F', 'In')\",OTHERS,False\nmp-1216875,\"{'Tm': 2.0, 'Cu': 6.0, 'Te': 6.0}\",\"('Cu', 'Te', 'Tm')\",OTHERS,False\nmp-755620,\"{'Mn': 1.0, 'Co': 5.0, 'O': 12.0}\",\"('Co', 'Mn', 'O')\",OTHERS,False\nmp-540469,\"{'Li': 2.0, 'Co': 3.0, 'P': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,False\nmp-20725,\"{'Pb': 2.0, 'O': 4.0}\",\"('O', 'Pb')\",OTHERS,False\nmp-40374,\"{'Na': 6.0, 'Ti': 1.0, 'Mn': 1.0, 'Si': 6.0, 'O': 18.0}\",\"('Mn', 'Na', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-1080096,\"{'Pt': 1.0, 'S': 6.0, 'N': 2.0}\",\"('N', 'Pt', 'S')\",OTHERS,False\nmp-1208658,\"{'Ta': 2.0, 'P': 8.0, 'S': 20.0, 'Cl': 10.0}\",\"('Cl', 'P', 'S', 'Ta')\",OTHERS,False\nmp-8013,\"{'F': 6.0, 'K': 1.0, 'Ru': 1.0}\",\"('F', 'K', 'Ru')\",OTHERS,False\nmp-21879,\"{'O': 6.0, 'Ba': 2.0, 'Ce': 1.0, 'Pt': 1.0}\",\"('Ba', 'Ce', 'O', 'Pt')\",OTHERS,False\nmp-1225453,\"{'Er': 14.0, 'Ag': 51.0}\",\"('Ag', 'Er')\",OTHERS,False\nmp-1217994,\"{'Ta': 2.0, 'Zn': 1.0, 'S': 4.0}\",\"('S', 'Ta', 'Zn')\",OTHERS,False\nmp-1246036,\"{'Ba': 4.0, 'Sn': 4.0, 'N': 8.0}\",\"('Ba', 'N', 'Sn')\",OTHERS,False\nmp-1199458,\"{'Co': 12.0, 'B': 6.0, 'P': 24.0, 'H': 12.0, 'Pb': 24.0, 'Cl': 6.0, 'O': 108.0}\",\"('B', 'Cl', 'Co', 'H', 'O', 'P', 'Pb')\",OTHERS,False\nmp-978960,\"{'Sm': 3.0, 'Tm': 1.0}\",\"('Sm', 'Tm')\",OTHERS,False\nmp-1029059,\"{'Te': 4.0, 'Mo': 1.0, 'W': 3.0, 'Se': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-626785,\"{'K': 2.0, 'H': 2.0, 'O': 2.0}\",\"('H', 'K', 'O')\",OTHERS,False\nmp-1183547,\"{'Ca': 1.0, 'Sb': 1.0, 'Pd': 2.0}\",\"('Ca', 'Pd', 'Sb')\",OTHERS,False\nmp-7074,\"{'O': 12.0, 'Na': 2.0, 'Si': 4.0, 'Sc': 2.0}\",\"('Na', 'O', 'Sc', 'Si')\",OTHERS,False\nmp-1213477,\"{'Cs': 4.0, 'Hf': 24.0, 'C': 4.0, 'Cl': 60.0}\",\"('C', 'Cl', 'Cs', 'Hf')\",OTHERS,False\nmp-651051,\"{'Te': 8.0, 'W': 12.0, 'C': 60.0, 'O': 60.0}\",\"('C', 'O', 'Te', 'W')\",OTHERS,False\nmp-24142,\"{'H': 8.0, 'O': 4.0, 'F': 10.0, 'Mg': 2.0, 'Al': 2.0}\",\"('Al', 'F', 'H', 'Mg', 'O')\",OTHERS,False\nmp-772808,\"{'K': 4.0, 'Bi': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('Bi', 'C', 'K', 'O', 'P')\",OTHERS,False\nmp-1191331,\"{'Ti': 16.0, 'Co': 8.0}\",\"('Co', 'Ti')\",OTHERS,False\nmp-698397,\"{'Sn': 1.0, 'H': 24.0, 'C': 6.0, 'N': 2.0, 'O': 2.0, 'F': 6.0}\",\"('C', 'F', 'H', 'N', 'O', 'Sn')\",OTHERS,False\nmp-780421,\"{'La': 6.0, 'Al': 6.0, 'O': 18.0}\",\"('Al', 'La', 'O')\",OTHERS,False\nmp-1210288,\"{'Na': 6.0, 'Mo': 2.0, 'O': 8.0}\",\"('Mo', 'Na', 'O')\",OTHERS,False\nmp-531773,\"{'Li': 28.0, 'Mg': 22.0, 'N': 25.0}\",\"('Li', 'Mg', 'N')\",OTHERS,False\nmp-1040443,\"{'K': 2.0, 'Ba': 2.0, 'Bi': 2.0, 'Te': 2.0, 'O': 12.0}\",\"('Ba', 'Bi', 'K', 'O', 'Te')\",OTHERS,False\nmp-625175,\"{'H': 12.0, 'Cl': 4.0, 'O': 20.0}\",\"('Cl', 'H', 'O')\",OTHERS,False\nmp-1215110,\"{'Co': 4.0, 'Mo': 12.0, 'O': 72.0}\",\"('Co', 'Mo', 'O')\",OTHERS,False\nmp-769122,\"{'Li': 8.0, 'Sb': 4.0, 'H': 12.0, 'O': 6.0, 'F': 20.0}\",\"('F', 'H', 'Li', 'O', 'Sb')\",OTHERS,False\nmp-867753,\"{'Cu': 1.0, 'Sb': 1.0, 'Rh': 2.0}\",\"('Cu', 'Rh', 'Sb')\",OTHERS,False\nmp-1200385,\"{'Eu': 12.0, 'Sb': 16.0, 'Se': 36.0}\",\"('Eu', 'Sb', 'Se')\",OTHERS,False\nmp-733877,\"{'Ca': 4.0, 'B': 12.0, 'H': 52.0, 'O': 48.0}\",\"('B', 'Ca', 'H', 'O')\",OTHERS,False\nmp-1211998,\"{'La': 2.0, 'In': 4.0, 'Cu': 18.0}\",\"('Cu', 'In', 'La')\",OTHERS,False\nmp-1188828,\"{'Ba': 4.0, 'Br': 8.0, 'O': 4.0}\",\"('Ba', 'Br', 'O')\",OTHERS,False\nmp-1200777,\"{'Er': 10.0, 'Ge': 20.0, 'Rh': 8.0}\",\"('Er', 'Ge', 'Rh')\",OTHERS,False\nmp-1195619,\"{'Pb': 16.0, 'N': 8.0, 'O': 40.0}\",\"('N', 'O', 'Pb')\",OTHERS,False\nmp-784631,\"{'Cr': 1.0, 'Ni': 2.0}\",\"('Cr', 'Ni')\",OTHERS,False\nmp-849556,\"{'Li': 6.0, 'Mn': 9.0, 'Si': 6.0, 'O': 24.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1210612,\"{'P': 4.0, 'N': 8.0, 'O': 16.0}\",\"('N', 'O', 'P')\",OTHERS,False\nmp-13610,\"{'F': 6.0, 'Zn': 1.0, 'Pb': 1.0}\",\"('F', 'Pb', 'Zn')\",OTHERS,False\nmp-776594,\"{'Mn': 8.0, 'O': 13.0, 'F': 3.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1120780,\"{'Au': 4.0, 'Cl': 4.0}\",\"('Au', 'Cl')\",OTHERS,False\nmp-549,\"{'Sc': 1.0, 'Sb': 1.0}\",\"('Sb', 'Sc')\",OTHERS,False\nmp-1184898,\"{'K': 3.0, 'Ga': 1.0}\",\"('Ga', 'K')\",OTHERS,False\nmp-1205959,\"{'Lu': 3.0, 'Mg': 3.0, 'Tl': 3.0}\",\"('Lu', 'Mg', 'Tl')\",OTHERS,False\nmp-555515,\"{'Cu': 2.0, 'Ag': 8.0, 'Te': 2.0, 'O': 12.0}\",\"('Ag', 'Cu', 'O', 'Te')\",OTHERS,False\nmp-1232078,\"{'Er': 8.0, 'Mg': 4.0, 'Se': 16.0}\",\"('Er', 'Mg', 'Se')\",OTHERS,False\nmp-766058,\"{'Na': 2.0, 'Fe': 16.0, 'O': 24.0}\",\"('Fe', 'Na', 'O')\",OTHERS,False\nmp-1096055,\"{'Y': 2.0, 'Zn': 1.0, 'Pd': 1.0}\",\"('Pd', 'Y', 'Zn')\",OTHERS,False\nmp-1206018,\"{'Mn': 2.0, 'Ge': 2.0, 'As': 4.0}\",\"('As', 'Ge', 'Mn')\",OTHERS,False\nmvc-649,\"{'Ba': 2.0, 'Y': 1.0, 'Sn': 3.0, 'O': 8.0}\",\"('Ba', 'O', 'Sn', 'Y')\",OTHERS,False\nmp-1215982,\"{'Yb': 3.0, 'Fe': 3.0, 'S': 8.0}\",\"('Fe', 'S', 'Yb')\",OTHERS,False\nmp-561529,\"{'Eu': 8.0, 'K': 4.0, 'Si': 16.0, 'O': 40.0, 'F': 4.0}\",\"('Eu', 'F', 'K', 'O', 'Si')\",OTHERS,False\nmp-1183203,\"{'Al': 1.0, 'Ge': 3.0}\",\"('Al', 'Ge')\",OTHERS,False\nmp-1147737,\"{'Li': 4.0, 'Zn': 1.0, 'P': 2.0, 'S': 8.0}\",\"('Li', 'P', 'S', 'Zn')\",OTHERS,False\nmp-29391,\"{'Sb': 4.0, 'Cl': 12.0, 'F': 8.0}\",\"('Cl', 'F', 'Sb')\",OTHERS,False\nmp-762632,\"{'Li': 2.0, 'Fe': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1245632,\"{'Re': 2.0, 'Ni': 2.0, 'N': 4.0}\",\"('N', 'Ni', 'Re')\",OTHERS,False\nmp-1175401,\"{'Li': 9.0, 'Co': 7.0, 'O': 16.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmvc-4436,\"{'Zn': 12.0, 'Co': 8.0, 'Ge': 12.0, 'O': 48.0}\",\"('Co', 'Ge', 'O', 'Zn')\",OTHERS,False\nmp-18473,\"{'O': 16.0, 'Rb': 2.0, 'Mo': 4.0, 'La': 2.0}\",\"('La', 'Mo', 'O', 'Rb')\",OTHERS,False\nmp-1215594,\"{'Yb': 1.0, 'Gd': 3.0, 'F': 12.0}\",\"('F', 'Gd', 'Yb')\",OTHERS,False\nmp-758890,\"{'Li': 2.0, 'Ag': 4.0, 'F': 8.0}\",\"('Ag', 'F', 'Li')\",OTHERS,False\nmp-764009,\"{'Mn': 6.0, 'O': 7.0, 'F': 5.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-20771,\"{'Zn': 2.0, 'Ge': 2.0, 'Eu': 1.0}\",\"('Eu', 'Ge', 'Zn')\",OTHERS,False\nmp-17138,\"{'O': 24.0, 'P': 4.0, 'K': 4.0, 'Mo': 4.0}\",\"('K', 'Mo', 'O', 'P')\",OTHERS,False\nmp-1097593,\"{'Cu': 1.0, 'Sb': 1.0, 'Pd': 2.0}\",\"('Cu', 'Pd', 'Sb')\",OTHERS,False\nmp-1184788,\"{'Ge': 2.0, 'Rh': 6.0}\",\"('Ge', 'Rh')\",OTHERS,False\nmp-776410,\"{'Mg': 8.0, 'N': 16.0, 'O': 48.0}\",\"('Mg', 'N', 'O')\",OTHERS,False\nmp-5077,\"{'Li': 2.0, 'Na': 1.0, 'Sb': 1.0}\",\"('Li', 'Na', 'Sb')\",OTHERS,False\nmp-1112164,\"{'K': 2.0, 'Er': 1.0, 'Cu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cu', 'Er', 'K')\",OTHERS,False\nmp-978534,\"{'Si': 2.0, 'Ge': 2.0}\",\"('Ge', 'Si')\",OTHERS,False\nmp-758776,\"{'Li': 6.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1223668,\"{'K': 1.0, 'Mn': 1.0, 'Sn': 3.0, 'O': 8.0}\",\"('K', 'Mn', 'O', 'Sn')\",OTHERS,False\nmp-1204107,\"{'Al': 8.0, 'Fe': 4.0, 'Si': 10.0, 'O': 36.0}\",\"('Al', 'Fe', 'O', 'Si')\",OTHERS,False\nmp-1228111,\"{'Ba': 1.0, 'Nb': 2.0, 'Fe': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Ba', 'Fe', 'Nb', 'O', 'P')\",OTHERS,False\nmp-1222388,\"{'Li': 1.0, 'Mo': 6.0, 'Se': 6.0, 'S': 2.0}\",\"('Li', 'Mo', 'S', 'Se')\",OTHERS,False\nmp-778867,\"{'Li': 9.0, 'Mn': 12.0, 'B': 12.0, 'O': 36.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-557961,\"{'Sb': 6.0, 'C': 6.0, 'N': 6.0, 'Cl': 24.0, 'O': 6.0}\",\"('C', 'Cl', 'N', 'O', 'Sb')\",OTHERS,False\nmp-1079874,\"{'Er': 3.0, 'Sn': 3.0, 'Pd': 3.0}\",\"('Er', 'Pd', 'Sn')\",OTHERS,False\nmp-1199988,\"{'Al': 2.0, 'Pb': 6.0, 'S': 2.0, 'O': 22.0}\",\"('Al', 'O', 'Pb', 'S')\",OTHERS,False\nmp-1097485,\"{'Ca': 1.0, 'La': 1.0, 'Au': 2.0}\",\"('Au', 'Ca', 'La')\",OTHERS,False\nmp-27642,\"{'Br': 20.0, 'Pa': 4.0}\",\"('Br', 'Pa')\",OTHERS,False\nmvc-3734,\"{'Zn': 4.0, 'Cr': 4.0, 'F': 20.0}\",\"('Cr', 'F', 'Zn')\",OTHERS,False\nmp-730585,\"{'Li': 8.0, 'B': 8.0, 'H': 16.0, 'O': 8.0, 'F': 32.0}\",\"('B', 'F', 'H', 'Li', 'O')\",OTHERS,False\nmp-1094069,\"{'Sr': 2.0, 'Cd': 2.0, 'Cu': 1.0, 'S': 2.0, 'O': 2.0}\",\"('Cd', 'Cu', 'O', 'S', 'Sr')\",OTHERS,False\nmp-759591,\"{'Sr': 20.0, 'V': 15.0, 'O': 49.0}\",\"('O', 'Sr', 'V')\",OTHERS,False\nmp-865430,\"{'Y': 1.0, 'Te': 1.0}\",\"('Te', 'Y')\",OTHERS,False\nmp-1178550,\"{'Al': 4.0, 'In': 4.0, 'O': 12.0}\",\"('Al', 'In', 'O')\",OTHERS,False\nmp-1214951,\"{'Al': 2.0, 'Zn': 20.0, 'B': 16.0, 'Rh': 36.0}\",\"('Al', 'B', 'Rh', 'Zn')\",OTHERS,False\nmp-774064,\"{'Li': 2.0, 'Sb': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1228974,\"{'Al': 4.0, 'V': 4.0, 'Co': 4.0}\",\"('Al', 'Co', 'V')\",OTHERS,False\nmp-770431,\"{'Ho': 8.0, 'Se': 12.0, 'O': 48.0}\",\"('Ho', 'O', 'Se')\",OTHERS,False\nmp-1194267,\"{'Cu': 6.0, 'Te': 2.0, 'Pb': 2.0, 'O': 16.0}\",\"('Cu', 'O', 'Pb', 'Te')\",OTHERS,False\nmp-849741,\"{'Ni': 8.0, 'P': 24.0, 'O': 72.0}\",\"('Ni', 'O', 'P')\",OTHERS,False\nmp-1193985,\"{'Ta': 2.0, 'Co': 21.0, 'B': 6.0}\",\"('B', 'Co', 'Ta')\",OTHERS,False\nmp-1019738,\"{'Eu': 8.0, 'Ba': 4.0, 'O': 16.0}\",\"('Ba', 'Eu', 'O')\",OTHERS,False\nmp-1208033,\"{'Tl': 2.0, 'Pt': 6.0, 'O': 8.0}\",\"('O', 'Pt', 'Tl')\",OTHERS,False\nmp-677716,\"{'Rb': 4.0, 'Al': 12.0, 'Cd': 4.0, 'Si': 12.0, 'O': 48.0}\",\"('Al', 'Cd', 'O', 'Rb', 'Si')\",OTHERS,False\nAu 37 In 39.6 Ca 12.6,\"{'Au': 37.0, 'In': 39.6, 'Ca': 12.6}\",\"('Au', 'Ca', 'In')\",AC,False\nmp-1224061,\"{'In': 2.0, 'Te': 1.0, 'As': 1.0}\",\"('As', 'In', 'Te')\",OTHERS,False\nmp-1215182,\"{'Zr': 1.0, 'Ti': 1.0, 'C': 2.0}\",\"('C', 'Ti', 'Zr')\",OTHERS,False\nmp-1223990,\"{'In': 4.0, 'Bi': 1.0}\",\"('Bi', 'In')\",OTHERS,False\nmp-690672,\"{'K': 6.0, 'Na': 2.0, 'Fe': 2.0, 'Cl': 12.0}\",\"('Cl', 'Fe', 'K', 'Na')\",OTHERS,False\nmp-1222492,\"{'Li': 3.0, 'Er': 1.0, 'Br': 6.0}\",\"('Br', 'Er', 'Li')\",OTHERS,False\nmp-1227726,\"{'Ca': 8.0, 'Mn': 4.0, 'Al': 4.0, 'O': 22.0}\",\"('Al', 'Ca', 'Mn', 'O')\",OTHERS,False\nmp-7818,\"{'Se': 2.0, 'Pd': 8.0}\",\"('Pd', 'Se')\",OTHERS,False\nmp-6563,\"{'Al': 36.0, 'Si': 24.0, 'Fe': 16.0, 'Tb': 4.0}\",\"('Al', 'Fe', 'Si', 'Tb')\",OTHERS,False\nmp-1181047,\"{'Ho': 10.0, 'Sb': 2.0, 'Au': 4.0}\",\"('Au', 'Ho', 'Sb')\",OTHERS,False\nmp-733612,\"{'Rb': 4.0, 'H': 12.0, 'S': 8.0, 'O': 32.0}\",\"('H', 'O', 'Rb', 'S')\",OTHERS,False\nmp-1203791,\"{'B': 8.0, 'P': 4.0, 'H': 80.0, 'C': 20.0, 'N': 4.0}\",\"('B', 'C', 'H', 'N', 'P')\",OTHERS,False\nmp-6782,\"{'Li': 2.0, 'O': 6.0, 'Zr': 1.0, 'Te': 1.0}\",\"('Li', 'O', 'Te', 'Zr')\",OTHERS,False\nmp-865274,\"{'Tl': 8.0, 'In': 8.0, 'S': 16.0}\",\"('In', 'S', 'Tl')\",OTHERS,False\nmp-1185024,\"{'La': 1.0, 'Ag': 3.0}\",\"('Ag', 'La')\",OTHERS,False\nmp-1211967,\"{'K': 4.0, 'Sr': 24.0, 'Sc': 4.0, 'Si': 16.0, 'O': 64.0}\",\"('K', 'O', 'Sc', 'Si', 'Sr')\",OTHERS,False\nmp-24013,\"{'H': 144.0, 'N': 48.0, 'Cl': 40.0, 'Cr': 8.0, 'Cu': 8.0}\",\"('Cl', 'Cr', 'Cu', 'H', 'N')\",OTHERS,False\nmp-30053,\"{'C': 2.0, 'N': 2.0, 'Na': 2.0}\",\"('C', 'N', 'Na')\",OTHERS,False\nmp-1401,\"{'Zn': 4.0, 'Zr': 2.0}\",\"('Zn', 'Zr')\",OTHERS,False\nmp-1185522,\"{'Lu': 6.0, 'Tl': 2.0}\",\"('Lu', 'Tl')\",OTHERS,False\nmp-697924,\"{'Mg': 1.0, 'Co': 1.0, 'H': 16.0, 'Cl': 4.0, 'O': 8.0}\",\"('Cl', 'Co', 'H', 'Mg', 'O')\",OTHERS,False\nmp-1213915,\"{'Ce': 6.0, 'Zn': 6.0, 'Co': 12.0}\",\"('Ce', 'Co', 'Zn')\",OTHERS,False\nmp-1074264,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1211564,\"{'Li': 4.0, 'Er': 16.0, 'Ge': 16.0}\",\"('Er', 'Ge', 'Li')\",OTHERS,False\nmp-30557,\"{'Co': 9.0, 'Ga': 6.0, 'Y': 3.0}\",\"('Co', 'Ga', 'Y')\",OTHERS,False\nmp-978522,\"{'Sm': 1.0, 'Y': 1.0, 'Ir': 2.0}\",\"('Ir', 'Sm', 'Y')\",OTHERS,False\nmp-755210,\"{'Y': 4.0, 'Cu': 2.0, 'O': 7.0}\",\"('Cu', 'O', 'Y')\",OTHERS,False\nmp-1228930,\"{'Ba': 6.0, 'La': 2.0, 'V': 6.0, 'O': 24.0}\",\"('Ba', 'La', 'O', 'V')\",OTHERS,False\nmp-1238874,\"{'Ti': 4.0, 'Cr': 4.0, 'Ag': 4.0, 'S': 16.0}\",\"('Ag', 'Cr', 'S', 'Ti')\",OTHERS,False\nmp-1223292,\"{'La': 2.0, 'Cu': 5.0, 'Ni': 5.0}\",\"('Cu', 'La', 'Ni')\",OTHERS,False\nmp-672689,\"{'Hf': 6.0, 'Co': 16.0, 'Si': 7.0}\",\"('Co', 'Hf', 'Si')\",OTHERS,False\nmp-781060,\"{'Mn': 8.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-12024,\"{'V': 4.0, 'Se': 8.0, 'Rb': 4.0}\",\"('Rb', 'Se', 'V')\",OTHERS,False\nmp-1206169,\"{'Sr': 2.0, 'Cu': 2.0, 'Si': 2.0}\",\"('Cu', 'Si', 'Sr')\",OTHERS,False\nmp-1219552,\"{'Rb': 2.0, 'Ti': 6.0, 'Nb': 2.0, 'O': 18.0}\",\"('Nb', 'O', 'Rb', 'Ti')\",OTHERS,False\nmp-685632,\"{'Ba': 7.0, 'U': 7.0, 'O': 24.0}\",\"('Ba', 'O', 'U')\",OTHERS,False\nmp-1190037,\"{'Nb': 6.0, 'Fe': 2.0, 'Se': 12.0}\",\"('Fe', 'Nb', 'Se')\",OTHERS,False\nmp-754634,\"{'Li': 6.0, 'W': 1.0, 'O': 6.0}\",\"('Li', 'O', 'W')\",OTHERS,False\nmp-1029236,\"{'Te': 6.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0}\",\"('Mo', 'Se', 'Te', 'W')\",OTHERS,False\nmp-631405,\"{'Zr': 1.0, 'Tc': 1.0, 'Cl': 1.0}\",\"('Cl', 'Tc', 'Zr')\",OTHERS,False\nmp-1181340,\"{'Fe': 6.0, 'O': 8.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-1187300,\"{'Tb': 3.0, 'Pm': 1.0}\",\"('Pm', 'Tb')\",OTHERS,False\nZn 77 Sc 8 Er 8 Fe 7,\"{'Zn': 77.0, 'Sc': 8.0, 'Er': 8.0, 'Fe': 7.0}\",\"('Er', 'Fe', 'Sc', 'Zn')\",QC,False\nmp-1245945,\"{'K': 2.0, 'Sn': 1.0, 'N': 2.0}\",\"('K', 'N', 'Sn')\",OTHERS,False\nmp-1201836,\"{'Ti': 20.0, 'As': 12.0}\",\"('As', 'Ti')\",OTHERS,False\nmp-642651,\"{'Yb': 8.0, 'Ge': 16.0, 'Ru': 12.0}\",\"('Ge', 'Ru', 'Yb')\",OTHERS,False\nmp-625465,\"{'Tm': 2.0, 'H': 6.0, 'O': 6.0}\",\"('H', 'O', 'Tm')\",OTHERS,False\nmp-30364,\"{'Ba': 1.0, 'Au': 5.0}\",\"('Au', 'Ba')\",OTHERS,False\nmp-1074924,\"{'Mg': 6.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-865329,\"{'Lu': 2.0, 'Mg': 1.0, 'Tc': 1.0}\",\"('Lu', 'Mg', 'Tc')\",OTHERS,False\nmp-759096,\"{'Na': 7.0, 'W': 12.0, 'O': 36.0}\",\"('Na', 'O', 'W')\",OTHERS,False\nmp-1207492,\"{'Zn': 3.0, 'P': 2.0, 'H': 4.0, 'O': 8.0}\",\"('H', 'O', 'P', 'Zn')\",OTHERS,False\nmp-867669,\"{'Li': 8.0, 'V': 2.0, 'F': 12.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-772826,\"{'K': 8.0, 'Li': 4.0, 'Ti': 8.0, 'As': 8.0, 'O': 40.0}\",\"('As', 'K', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-1207673,\"{'Yb': 8.0, 'Sn': 20.0, 'Pd': 12.0}\",\"('Pd', 'Sn', 'Yb')\",OTHERS,False\nmp-862331,\"{'La': 2.0, 'Cu': 1.0, 'Ru': 1.0}\",\"('Cu', 'La', 'Ru')\",OTHERS,False\nmp-1096982,\"{'H': 2.0, 'C': 2.0, 'S': 1.0}\",\"('C', 'H', 'S')\",OTHERS,False\nmp-867815,\"{'Ac': 2.0, 'Ga': 6.0}\",\"('Ac', 'Ga')\",OTHERS,False\nmp-1184248,\"{'Er': 1.0, 'Tm': 1.0, 'Pd': 2.0}\",\"('Er', 'Pd', 'Tm')\",OTHERS,False\nmp-23130,\"{'O': 2.0, 'Cl': 2.0, 'Co': 1.0, 'Sr': 2.0}\",\"('Cl', 'Co', 'O', 'Sr')\",OTHERS,False\nmvc-277,\"{'Sr': 4.0, 'Cu': 4.0, 'Sn': 2.0, 'O': 14.0}\",\"('Cu', 'O', 'Sn', 'Sr')\",OTHERS,False\nmp-683792,\"{'Fe': 8.0, 'Os': 4.0, 'C': 48.0, 'O': 48.0}\",\"('C', 'Fe', 'O', 'Os')\",OTHERS,False\nmp-557145,\"{'Cr': 4.0, 'Sb': 4.0, 'F': 40.0}\",\"('Cr', 'F', 'Sb')\",OTHERS,False\nmp-1212754,\"{'Gd': 2.0, 'Cl': 6.0, 'O': 24.0}\",\"('Cl', 'Gd', 'O')\",OTHERS,False\nmp-1211805,\"{'Pr': 16.0, 'Sb': 28.0, 'Rh': 34.0}\",\"('Pr', 'Rh', 'Sb')\",OTHERS,False\nmp-510709,\"{'Sr': 8.0, 'As': 8.0, 'O': 40.0, 'H': 24.0}\",\"('As', 'H', 'O', 'Sr')\",OTHERS,False\nmp-18493,\"{'O': 24.0, 'Na': 8.0, 'P': 6.0, 'Fe': 4.0}\",\"('Fe', 'Na', 'O', 'P')\",OTHERS,False\nmp-684000,\"{'Eu': 8.0, 'Si': 12.0, 'Ni': 32.0}\",\"('Eu', 'Ni', 'Si')\",OTHERS,False\nmp-1352,\"{'N': 1.0, 'Zr': 1.0}\",\"('N', 'Zr')\",OTHERS,False\nmp-1187999,\"{'Yb': 6.0, 'Lu': 2.0}\",\"('Lu', 'Yb')\",OTHERS,False\nmp-1190145,\"{'Na': 4.0, 'In': 4.0, 'Ge': 2.0, 'S': 12.0}\",\"('Ge', 'In', 'Na', 'S')\",OTHERS,False\nmp-24366,\"{'K': 4.0, 'Zn': 2.0, 'H': 24.0, 'S': 4.0, 'O': 28.0}\",\"('H', 'K', 'O', 'S', 'Zn')\",OTHERS,False\nmp-1025266,\"{'Tb': 2.0, 'Cr': 2.0, 'C': 3.0}\",\"('C', 'Cr', 'Tb')\",OTHERS,False\nmp-9529,\"{'Ge': 4.0, 'Rh': 4.0, 'Dy': 4.0}\",\"('Dy', 'Ge', 'Rh')\",OTHERS,False\nmp-754050,\"{'Mn': 2.0, 'O': 3.0, 'F': 1.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1036237,\"{'Mg': 14.0, 'Mn': 1.0, 'Fe': 1.0, 'O': 16.0}\",\"('Fe', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-1211532,\"{'K': 4.0, 'Tm': 4.0, 'Mo': 8.0, 'O': 32.0}\",\"('K', 'Mo', 'O', 'Tm')\",OTHERS,False\nmp-556939,\"{'Np': 2.0, 'I': 2.0, 'O': 2.0}\",\"('I', 'Np', 'O')\",OTHERS,False\nmp-978543,\"{'Sm': 1.0, 'Er': 1.0, 'Tl': 2.0}\",\"('Er', 'Sm', 'Tl')\",OTHERS,False\nmp-1182571,\"{'Ca': 8.0, 'Be': 16.0, 'P': 12.0, 'O': 80.0}\",\"('Be', 'Ca', 'O', 'P')\",OTHERS,False\nmp-1173794,\"{'Na': 18.0, 'O': 3.0}\",\"('Na', 'O')\",OTHERS,False\nmp-961711,\"{'Zr': 1.0, 'Si': 1.0, 'Pt': 1.0}\",\"('Pt', 'Si', 'Zr')\",OTHERS,False\nmp-1211960,\"{'K': 4.0, 'Ge': 4.0, 'O': 6.0}\",\"('Ge', 'K', 'O')\",OTHERS,False\nmp-36539,\"{'Bi': 2.0, 'K': 2.0, 'Se': 4.0}\",\"('Bi', 'K', 'Se')\",OTHERS,False\nmp-20231,\"{'Pd': 4.0, 'In': 2.0, 'Ce': 2.0}\",\"('Ce', 'In', 'Pd')\",OTHERS,False\nmp-1183867,\"{'Ce': 2.0, 'Cd': 1.0, 'In': 1.0}\",\"('Cd', 'Ce', 'In')\",OTHERS,False\nmp-1096521,\"{'Al': 2.0, 'Fe': 1.0, 'Cu': 1.0}\",\"('Al', 'Cu', 'Fe')\",OTHERS,False\nmp-999576,\"{'Mn': 2.0, 'Si': 1.0, 'Ru': 1.0}\",\"('Mn', 'Ru', 'Si')\",OTHERS,False\nmp-1209037,\"{'Sr': 8.0, 'Cr': 8.0, 'F': 40.0}\",\"('Cr', 'F', 'Sr')\",OTHERS,False\nmp-8766,\"{'S': 4.0, 'Co': 2.0, 'Rb': 4.0}\",\"('Co', 'Rb', 'S')\",OTHERS,False\nmp-1191014,\"{'Ce': 12.0, 'Ni': 4.0, 'Ge': 8.0}\",\"('Ce', 'Ge', 'Ni')\",OTHERS,False\nmp-755271,\"{'Li': 3.0, 'Ni': 3.0, 'B': 3.0, 'O': 9.0}\",\"('B', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-978,\"{'Sr': 8.0, 'Sn': 4.0}\",\"('Sn', 'Sr')\",OTHERS,False\nmp-867908,\"{'La': 1.0, 'Bi': 1.0, 'Au': 2.0}\",\"('Au', 'Bi', 'La')\",OTHERS,False\nmp-8895,\"{'B': 4.0, 'Ca': 2.0, 'Rh': 5.0}\",\"('B', 'Ca', 'Rh')\",OTHERS,False\nmp-753482,\"{'Li': 2.0, 'Mn': 1.0, 'Co': 1.0, 'O': 4.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-759117,\"{'Li': 8.0, 'Sb': 4.0, 'P': 12.0, 'O': 40.0}\",\"('Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1248957,\"{'Si': 32.0, 'O': 64.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1205991,\"{'La': 1.0, 'Bi': 2.0, 'Cl': 1.0, 'O': 4.0}\",\"('Bi', 'Cl', 'La', 'O')\",OTHERS,False\nmp-863250,\"{'Ta': 1.0, 'Mn': 2.0, 'Ge': 1.0}\",\"('Ge', 'Mn', 'Ta')\",OTHERS,False\nmp-510085,\"{'Er': 8.0, 'Ti': 12.0, 'Si': 16.0}\",\"('Er', 'Si', 'Ti')\",OTHERS,False\nmp-1209592,\"{'P': 8.0, 'O': 24.0}\",\"('O', 'P')\",OTHERS,False\nmp-1077164,\"{'Li': 1.0, 'Ti': 1.0, 'S': 2.0, 'O': 2.0}\",\"('Li', 'O', 'S', 'Ti')\",OTHERS,False\nmp-1246108,\"{'Mn': 10.0, 'Zn': 1.0, 'N': 8.0}\",\"('Mn', 'N', 'Zn')\",OTHERS,False\nmp-1203960,\"{'U': 4.0, 'H': 24.0, 'Br': 8.0, 'O': 20.0}\",\"('Br', 'H', 'O', 'U')\",OTHERS,False\nmp-763558,\"{'Li': 1.0, 'V': 2.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Li', 'O', 'V')\",OTHERS,False\nmp-1206944,\"{'La': 3.0, 'Mg': 3.0, 'Cu': 3.0}\",\"('Cu', 'La', 'Mg')\",OTHERS,False\nmp-29903,\"{'F': 20.0, 'Te': 4.0, 'Tl': 4.0}\",\"('F', 'Te', 'Tl')\",OTHERS,False\nmp-1062310,\"{'Lu': 1.0, 'Cd': 2.0}\",\"('Cd', 'Lu')\",OTHERS,False\nmp-695900,\"{'Sb': 4.0, 'H': 4.0, 'C': 4.0, 'S': 4.0, 'O': 12.0, 'F': 32.0}\",\"('C', 'F', 'H', 'O', 'S', 'Sb')\",OTHERS,False\nmp-30145,\"{'Se': 26.0, 'Rb': 4.0, 'Bi': 16.0}\",\"('Bi', 'Rb', 'Se')\",OTHERS,False\nmp-1221327,\"{'Na': 2.0, 'Mn': 1.0, 'Ni': 1.0, 'O': 4.0}\",\"('Mn', 'Na', 'Ni', 'O')\",OTHERS,False\nmp-1237078,\"{'Rb': 2.0, 'U': 1.0, 'Br': 4.0, 'O': 4.0}\",\"('Br', 'O', 'Rb', 'U')\",OTHERS,False\nmp-1212239,\"{'Hg': 6.0, 'Pt': 2.0, 'N': 4.0, 'Cl': 16.0}\",\"('Cl', 'Hg', 'N', 'Pt')\",OTHERS,False\nmp-1182773,\"{'Ba': 4.0, 'Gd': 8.0, 'Te': 16.0}\",\"('Ba', 'Gd', 'Te')\",OTHERS,False\nmp-1102758,\"{'Lu': 4.0, 'Ga': 4.0, 'Ni': 4.0}\",\"('Ga', 'Lu', 'Ni')\",OTHERS,False\nmp-30823,\"{'Os': 6.0, 'Pu': 10.0}\",\"('Os', 'Pu')\",OTHERS,False\nmp-1436,\"{'Ag': 4.0, 'Eu': 2.0}\",\"('Ag', 'Eu')\",OTHERS,False\nmp-973964,\"{'Lu': 2.0, 'Ga': 1.0, 'Ag': 1.0}\",\"('Ag', 'Ga', 'Lu')\",OTHERS,False\nmp-541751,\"{'Bi': 24.0, 'Ni': 8.0, 'I': 6.0}\",\"('Bi', 'I', 'Ni')\",OTHERS,False\nmp-1199681,\"{'Al': 4.0, 'Sn': 4.0, 'P': 4.0, 'H': 72.0, 'C': 24.0, 'Cl': 16.0}\",\"('Al', 'C', 'Cl', 'H', 'P', 'Sn')\",OTHERS,False\nmp-23253,\"{'Rb': 2.0, 'Bi': 4.0}\",\"('Bi', 'Rb')\",OTHERS,False\nmp-616565,\"{'Rb': 8.0, 'Cr': 16.0, 'O': 52.0}\",\"('Cr', 'O', 'Rb')\",OTHERS,False\nmp-851093,\"{'Ni': 6.0, 'P': 8.0, 'O': 28.0}\",\"('Ni', 'O', 'P')\",OTHERS,False\nmp-1114365,\"{'Rb': 2.0, 'Na': 1.0, 'Ir': 1.0, 'F': 6.0}\",\"('F', 'Ir', 'Na', 'Rb')\",OTHERS,False\nmp-755892,\"{'Sr': 2.0, 'La': 4.0, 'Cl': 16.0}\",\"('Cl', 'La', 'Sr')\",OTHERS,False\nmp-1225227,\"{'Fe': 3.0, 'Co': 3.0, 'Si': 2.0}\",\"('Co', 'Fe', 'Si')\",OTHERS,False\nmvc-14364,\"{'Mg': 4.0, 'Sb': 4.0, 'F': 20.0}\",\"('F', 'Mg', 'Sb')\",OTHERS,False\nmp-1245791,\"{'K': 4.0, 'Ni': 4.0, 'N': 4.0}\",\"('K', 'N', 'Ni')\",OTHERS,False\nmp-2819,\"{'In': 1.0, 'Te': 1.0}\",\"('In', 'Te')\",OTHERS,False\nmvc-14220,\"{'Mg': 2.0, 'Mo': 2.0, 'F': 10.0}\",\"('F', 'Mg', 'Mo')\",OTHERS,False\nmp-850908,\"{'Li': 2.0, 'Mg': 11.0, 'W': 12.0, 'O': 48.0}\",\"('Li', 'Mg', 'O', 'W')\",OTHERS,False\nmp-778284,\"{'Li': 4.0, 'V': 3.0, 'Co': 2.0, 'Sn': 3.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'Sn', 'V')\",OTHERS,False\nmp-1218618,\"{'Sr': 12.0, 'Ca': 2.0, 'Mn': 8.0, 'O': 26.0}\",\"('Ca', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1246706,\"{'Na': 16.0, 'Ir': 16.0, 'N': 32.0}\",\"('Ir', 'N', 'Na')\",OTHERS,False\nmp-1245695,\"{'Sr': 28.0, 'Re': 4.0, 'N': 24.0}\",\"('N', 'Re', 'Sr')\",OTHERS,False\nmp-1221056,\"{'Na': 2.0, 'Dy': 2.0, 'Ti': 4.0, 'O': 12.0}\",\"('Dy', 'Na', 'O', 'Ti')\",OTHERS,False\nmp-1867,\"{'Ni': 2.0, 'Ta': 4.0}\",\"('Ni', 'Ta')\",OTHERS,False\nmp-555993,\"{'Cr': 2.0, 'Ag': 6.0, 'Cl': 2.0, 'O': 8.0}\",\"('Ag', 'Cl', 'Cr', 'O')\",OTHERS,False\nmp-1114513,\"{'Rb': 2.0, 'Na': 1.0, 'Ce': 1.0, 'I': 6.0}\",\"('Ce', 'I', 'Na', 'Rb')\",OTHERS,False\nmp-762019,\"{'Li': 1.0, 'V': 1.0, 'C': 2.0, 'O': 6.0}\",\"('C', 'Li', 'O', 'V')\",OTHERS,False\nmp-3155,\"{'C': 4.0, 'Sc': 3.0, 'Fe': 1.0}\",\"('C', 'Fe', 'Sc')\",OTHERS,False\nmp-778904,\"{'Mn': 12.0, 'O': 14.0, 'F': 10.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1106022,\"{'Y': 4.0, 'Ge': 10.0, 'Rh': 6.0}\",\"('Ge', 'Rh', 'Y')\",OTHERS,False\nmp-1018639,\"{'Ti': 1.0, 'Sn': 1.0, 'O': 3.0}\",\"('O', 'Sn', 'Ti')\",OTHERS,False\nmp-553898,\"{'Ge': 12.0, 'Pb': 12.0, 'O': 36.0}\",\"('Ge', 'O', 'Pb')\",OTHERS,False\nmp-1215539,\"{'Yb': 1.0, 'Mn': 2.0, 'Bi': 1.0, 'Sb': 1.0}\",\"('Bi', 'Mn', 'Sb', 'Yb')\",OTHERS,False\nmp-698074,\"{'Ca': 6.0, 'H': 6.0, 'S': 6.0, 'O': 27.0}\",\"('Ca', 'H', 'O', 'S')\",OTHERS,False\nmp-690772,\"{'V': 10.0, 'S': 16.0}\",\"('S', 'V')\",OTHERS,False\nmp-1222856,\"{'La': 2.0, 'Ge': 4.0, 'Pd': 2.0, 'Rh': 2.0}\",\"('Ge', 'La', 'Pd', 'Rh')\",OTHERS,False\nmp-1184657,{'Hg': 8.0},\"('Hg',)\",OTHERS,False\nmp-1223244,\"{'La': 2.0, 'Al': 3.0, 'Ge': 1.0}\",\"('Al', 'Ge', 'La')\",OTHERS,False\nmp-1016883,\"{'Zr': 1.0, 'Zn': 1.0, 'O': 3.0}\",\"('O', 'Zn', 'Zr')\",OTHERS,False\nmp-1025068,\"{'Nd': 1.0, 'B': 2.0, 'Ir': 3.0}\",\"('B', 'Ir', 'Nd')\",OTHERS,False\nmp-865746,\"{'Ga': 1.0, 'Tc': 2.0, 'W': 1.0}\",\"('Ga', 'Tc', 'W')\",OTHERS,False\nmp-15397,\"{'O': 15.0, 'Al': 2.0, 'Ti': 7.0}\",\"('Al', 'O', 'Ti')\",OTHERS,False\nmp-1142857,\"{'Si': 12.0, 'Mo': 12.0, 'O': 48.0}\",\"('Mo', 'O', 'Si')\",OTHERS,False\nmp-769734,\"{'Sc': 4.0, 'Fe': 4.0, 'O': 12.0}\",\"('Fe', 'O', 'Sc')\",OTHERS,False\nmp-1188757,\"{'Y': 12.0, 'Os': 4.0}\",\"('Os', 'Y')\",OTHERS,False\nmp-505225,\"{'U': 4.0, 'P': 4.0, 'O': 20.0}\",\"('O', 'P', 'U')\",OTHERS,False\nmp-1205693,\"{'Ba': 2.0, 'Dy': 1.0, 'U': 1.0, 'O': 6.0}\",\"('Ba', 'Dy', 'O', 'U')\",OTHERS,False\nmp-29564,\"{'Mg': 6.0, 'Si': 8.0, 'Ba': 4.0}\",\"('Ba', 'Mg', 'Si')\",OTHERS,False\nmp-760432,\"{'Cu': 4.0, 'O': 6.0}\",\"('Cu', 'O')\",OTHERS,False\nmp-558954,\"{'Na': 8.0, 'Sr': 8.0, 'Al': 8.0, 'P': 4.0, 'O': 16.0, 'F': 36.0}\",\"('Al', 'F', 'Na', 'O', 'P', 'Sr')\",OTHERS,False\nmvc-10142,\"{'Mg': 6.0, 'Fe': 12.0, 'O': 24.0}\",\"('Fe', 'Mg', 'O')\",OTHERS,False\nmp-1097204,\"{'Al': 1.0, 'Ga': 1.0, 'Ir': 2.0}\",\"('Al', 'Ga', 'Ir')\",OTHERS,False\nmp-849457,\"{'Li': 3.0, 'Ni': 1.0, 'Sb': 4.0, 'O': 12.0}\",\"('Li', 'Ni', 'O', 'Sb')\",OTHERS,False\nmp-779007,\"{'Li': 10.0, 'Fe': 2.0, 'Co': 3.0, 'Ni': 3.0, 'O': 16.0}\",\"('Co', 'Fe', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-1219869,\"{'Pr': 2.0, 'Fe': 1.0, 'Si': 3.0}\",\"('Fe', 'Pr', 'Si')\",OTHERS,False\nmvc-1093,\"{'Ca': 4.0, 'W': 4.0, 'O': 8.0}\",\"('Ca', 'O', 'W')\",OTHERS,False\nmp-29477,\"{'C': 4.0, 'S': 14.0, 'Cl': 12.0}\",\"('C', 'Cl', 'S')\",OTHERS,False\nmp-29519,\"{'K': 4.0, 'I': 16.0, 'Au': 4.0}\",\"('Au', 'I', 'K')\",OTHERS,False\nmp-1209818,\"{'Ni': 7.0, 'Mo': 9.0, 'P': 6.0}\",\"('Mo', 'Ni', 'P')\",OTHERS,False\nmp-2847,\"{'B': 16.0, 'Er': 4.0}\",\"('B', 'Er')\",OTHERS,False\nmp-1176980,\"{'Li': 12.0, 'Mn': 2.0, 'V': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-849732,\"{'Li': 1.0, 'Sb': 1.0, 'Te': 3.0, 'O': 12.0}\",\"('Li', 'O', 'Sb', 'Te')\",OTHERS,False\nmp-1211672,\"{'Nd': 6.0, 'N': 8.0, 'O': 33.0}\",\"('N', 'Nd', 'O')\",OTHERS,False\nmp-774389,\"{'Li': 4.0, 'Mn': 1.0, 'V': 3.0, 'P': 8.0, 'O': 28.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-27133,\"{'P': 8.0, 'S': 32.0, 'Bi': 8.0}\",\"('Bi', 'P', 'S')\",OTHERS,False\nmp-1191148,\"{'Sr': 2.0, 'Cu': 4.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Cu', 'O', 'Sr')\",OTHERS,False\nmp-1223195,\"{'La': 4.0, 'U': 2.0, 'Te': 10.0}\",\"('La', 'Te', 'U')\",OTHERS,False\nmp-1221325,\"{'Na': 2.0, 'Pt': 1.0, 'O': 3.0}\",\"('Na', 'O', 'Pt')\",OTHERS,False\nmp-28166,\"{'K': 3.0, 'O': 1.0, 'Br': 1.0}\",\"('Br', 'K', 'O')\",OTHERS,False\nmp-1211737,\"{'K': 8.0, 'Tb': 4.0, 'Cl': 20.0}\",\"('Cl', 'K', 'Tb')\",OTHERS,False\nmvc-6095,\"{'Zn': 2.0, 'Fe': 1.0, 'W': 1.0, 'O': 6.0}\",\"('Fe', 'O', 'W', 'Zn')\",OTHERS,False\nmp-569330,\"{'Ce': 8.0, 'C': 8.0, 'Br': 6.0}\",\"('Br', 'C', 'Ce')\",OTHERS,False\nmp-1222923,\"{'La': 1.0, 'Pr': 3.0, 'Mn': 4.0, 'O': 12.0}\",\"('La', 'Mn', 'O', 'Pr')\",OTHERS,False\nmp-759298,\"{'Li': 10.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1113420,\"{'Eu': 1.0, 'Cs': 2.0, 'Au': 1.0, 'Cl': 6.0}\",\"('Au', 'Cl', 'Cs', 'Eu')\",OTHERS,False\nmp-2514,\"{'Mg': 24.0, 'P': 16.0}\",\"('Mg', 'P')\",OTHERS,False\nZn 58 Mg 40 Lu 2,\"{'Zn': 58.0, 'Mg': 40.0, 'Lu': 2.0}\",\"('Lu', 'Mg', 'Zn')\",QC,False\nCu 48 Sc 15 Ga 34 Mg 3,\"{'Cu': 48.0, 'Sc': 15.0, 'Ga': 34.0, 'Mg': 3.0}\",\"('Cu', 'Ga', 'Mg', 'Sc')\",QC,False\nmp-26691,\"{'Li': 6.0, 'Ni': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-753178,\"{'Li': 1.0, 'Fe': 2.0, 'C': 3.0, 'O': 9.0}\",\"('C', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-680322,\"{'Bi': 17.0, 'P': 5.0, 'Pb': 5.0, 'O': 43.0}\",\"('Bi', 'O', 'P', 'Pb')\",OTHERS,False\nmp-865015,\"{'Mn': 1.0, 'Si': 1.0, 'Rh': 2.0}\",\"('Mn', 'Rh', 'Si')\",OTHERS,False\nmp-1232361,\"{'Cs': 1.0, 'In': 1.0, 'Cu': 6.0, 'O': 8.0}\",\"('Cs', 'Cu', 'In', 'O')\",OTHERS,False\nmp-1226713,\"{'Ce': 1.0, 'Dy': 4.0, 'S': 7.0}\",\"('Ce', 'Dy', 'S')\",OTHERS,False\nmp-631661,\"{'Y': 2.0, 'Fe': 1.0, 'B': 1.0}\",\"('B', 'Fe', 'Y')\",OTHERS,False\nmp-300,\"{'Yb': 1.0, 'Pt': 3.0}\",\"('Pt', 'Yb')\",OTHERS,False\nmp-1111512,\"{'Na': 2.0, 'Sb': 1.0, 'Au': 1.0, 'F': 6.0}\",\"('Au', 'F', 'Na', 'Sb')\",OTHERS,False\nmp-568580,\"{'Na': 40.0, 'Ga': 24.0, 'Sn': 12.0}\",\"('Ga', 'Na', 'Sn')\",OTHERS,False\nmp-643074,\"{'Cs': 4.0, 'P': 4.0, 'H': 4.0, 'O': 14.0}\",\"('Cs', 'H', 'O', 'P')\",OTHERS,False\nmp-753270,\"{'Li': 2.0, 'V': 3.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-975390,\"{'Rb': 1.0, 'Ca': 3.0}\",\"('Ca', 'Rb')\",OTHERS,False\nmp-560801,\"{'Gd': 3.0, 'Al': 9.0, 'B': 12.0, 'O': 36.0}\",\"('Al', 'B', 'Gd', 'O')\",OTHERS,False\nmp-1186463,\"{'Pd': 1.0, 'S': 3.0}\",\"('Pd', 'S')\",OTHERS,False\nmp-1176417,\"{'Mn': 4.0, 'Te': 4.0, 'O': 12.0}\",\"('Mn', 'O', 'Te')\",OTHERS,False\nmp-555085,\"{'K': 2.0, 'Au': 2.0, 'N': 8.0, 'O': 24.0}\",\"('Au', 'K', 'N', 'O')\",OTHERS,False\nmp-779318,\"{'Li': 2.0, 'Cr': 4.0, 'P': 6.0, 'O': 26.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1223222,\"{'La': 4.0, 'C': 2.0, 'I': 5.0}\",\"('C', 'I', 'La')\",OTHERS,False\nmp-568716,\"{'Sr': 20.0, 'Ag': 20.0}\",\"('Ag', 'Sr')\",OTHERS,False\nmp-557693,\"{'Cs': 8.0, 'Zn': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Cs', 'O', 'P', 'Zn')\",OTHERS,False\nZn 74 Mg 15 Ho 11,\"{'Zn': 74.0, 'Mg': 15.0, 'Ho': 11.0}\",\"('Ho', 'Mg', 'Zn')\",QC,False\nmp-22687,\"{'In': 4.0, 'Ba': 1.0}\",\"('Ba', 'In')\",OTHERS,False\nmp-28341,\"{'Li': 4.0, 'Cl': 16.0, 'Ga': 4.0}\",\"('Cl', 'Ga', 'Li')\",OTHERS,False\nmvc-8344,\"{'Mg': 2.0, 'Mn': 4.0, 'O': 10.0}\",\"('Mg', 'Mn', 'O')\",OTHERS,False\nmp-1186320,\"{'Np': 1.0, 'Hg': 1.0, 'O': 3.0}\",\"('Hg', 'Np', 'O')\",OTHERS,False\nmp-1214561,\"{'Ba': 2.0, 'Tb': 1.0, 'W': 1.0, 'O': 6.0}\",\"('Ba', 'O', 'Tb', 'W')\",OTHERS,False\nmp-752663,\"{'Li': 8.0, 'Fe': 4.0, 'B': 4.0, 'O': 16.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1073794,\"{'Mg': 6.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-984353,\"{'As': 2.0, 'Au': 6.0}\",\"('As', 'Au')\",OTHERS,False\nmp-1194892,\"{'Si': 2.0, 'P': 8.0, 'Pd': 2.0, 'Pb': 2.0, 'O': 28.0}\",\"('O', 'P', 'Pb', 'Pd', 'Si')\",OTHERS,False\nmp-707342,\"{'Zn': 2.0, 'H': 36.0, 'Ru': 4.0, 'Br': 14.0, 'N': 12.0}\",\"('Br', 'H', 'N', 'Ru', 'Zn')\",OTHERS,False\nmp-1093916,\"{'Hf': 1.0, 'Zr': 1.0, 'Co': 2.0}\",\"('Co', 'Hf', 'Zr')\",OTHERS,False\nmp-680695,\"{'Ce': 6.0, 'B': 4.0, 'Cl': 6.0, 'O': 12.0}\",\"('B', 'Ce', 'Cl', 'O')\",OTHERS,False\nmp-686526,\"{'Na': 4.0, 'Ca': 4.0, 'Al': 4.0, 'Si': 8.0, 'O': 28.0}\",\"('Al', 'Ca', 'Na', 'O', 'Si')\",OTHERS,False\nmp-16932,\"{'Th': 2.0, 'Co': 17.0}\",\"('Co', 'Th')\",OTHERS,False\nmp-696993,\"{'Sn': 8.0, 'H': 8.0, 'S': 4.0, 'O': 20.0, 'F': 8.0}\",\"('F', 'H', 'O', 'S', 'Sn')\",OTHERS,False\nmp-1245621,\"{'Fe': 10.0, 'Ge': 4.0, 'N': 12.0}\",\"('Fe', 'Ge', 'N')\",OTHERS,False\nmvc-1072,\"{'Ca': 4.0, 'Cu': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Ca', 'Cu', 'O', 'P')\",OTHERS,False\nmp-764057,\"{'V': 6.0, 'O': 12.0, 'F': 6.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-13385,\"{'P': 4.0, 'Se': 12.0, 'Ag': 2.0, 'Tm': 2.0}\",\"('Ag', 'P', 'Se', 'Tm')\",OTHERS,False\nmp-773515,\"{'Te': 3.0, 'W': 1.0, 'O': 12.0}\",\"('O', 'Te', 'W')\",OTHERS,False\nmp-13918,\"{'Ge': 2.0, 'Sr': 1.0, 'Au': 2.0}\",\"('Au', 'Ge', 'Sr')\",OTHERS,False\nmvc-1098,\"{'Ba': 2.0, 'V': 3.0, 'O': 8.0}\",\"('Ba', 'O', 'V')\",OTHERS,False\nmp-28989,\"{'Li': 10.0, 'N': 3.0, 'Br': 1.0}\",\"('Br', 'Li', 'N')\",OTHERS,False\nmp-1103877,\"{'Nd': 6.0, 'Ga': 2.0, 'Co': 6.0}\",\"('Co', 'Ga', 'Nd')\",OTHERS,False\nmp-6345,\"{'O': 18.0, 'Ru': 4.0, 'Ba': 6.0, 'Tb': 2.0}\",\"('Ba', 'O', 'Ru', 'Tb')\",OTHERS,False\nmp-510113,\"{'Bi': 8.0, 'Mn': 10.0, 'Ni': 4.0}\",\"('Bi', 'Mn', 'Ni')\",OTHERS,False\nmvc-2664,\"{'Mg': 4.0, 'Ta': 4.0, 'Fe': 2.0, 'O': 16.0}\",\"('Fe', 'Mg', 'O', 'Ta')\",OTHERS,False\nmp-1207719,\"{'Yb': 12.0, 'Ta': 8.0, 'Al': 86.0}\",\"('Al', 'Ta', 'Yb')\",OTHERS,False\nmp-682548,\"{'Cs': 5.0, 'Te': 3.0, 'H': 4.0, 'N': 1.0, 'Cl': 18.0}\",\"('Cl', 'Cs', 'H', 'N', 'Te')\",OTHERS,False\nmp-1190813,\"{'Cs': 4.0, 'U': 2.0, 'Pt': 6.0, 'Se': 12.0}\",\"('Cs', 'Pt', 'Se', 'U')\",OTHERS,False\nmp-1096504,\"{'Sr': 2.0, 'Li': 1.0, 'Pd': 1.0}\",\"('Li', 'Pd', 'Sr')\",OTHERS,False\nmvc-4008,\"{'Zn': 4.0, 'Ni': 4.0, 'O': 12.0}\",\"('Ni', 'O', 'Zn')\",OTHERS,False\nmp-766243,\"{'Y': 8.0, 'Zr': 8.0, 'O': 24.0}\",\"('O', 'Y', 'Zr')\",OTHERS,False\nmp-26692,\"{'Li': 4.0, 'Ni': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-759092,\"{'Li': 12.0, 'Fe': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1104197,\"{'Ba': 1.0, 'Yb': 1.0, 'Fe': 4.0, 'O': 7.0}\",\"('Ba', 'Fe', 'O', 'Yb')\",OTHERS,False\nmp-21515,\"{'S': 8.0, 'Fe': 6.0}\",\"('Fe', 'S')\",OTHERS,False\nmp-1006256,\"{'Ce': 1.0, 'Y': 1.0, 'Tl': 2.0}\",\"('Ce', 'Tl', 'Y')\",OTHERS,False\nmp-1188061,\"{'Zr': 6.0, 'Sn': 2.0}\",\"('Sn', 'Zr')\",OTHERS,False\nmp-1205648,\"{'Rb': 4.0, 'Ni': 2.0, 'As': 4.0}\",\"('As', 'Ni', 'Rb')\",OTHERS,False\nmp-30097,\"{'Cl': 16.0, 'Te': 14.0, 'Bi': 4.0}\",\"('Bi', 'Cl', 'Te')\",OTHERS,False\nmp-768522,\"{'La': 8.0, 'Ce': 8.0, 'O': 28.0}\",\"('Ce', 'La', 'O')\",OTHERS,False\nmp-1177753,\"{'Li': 6.0, 'Fe': 4.0, 'O': 12.0}\",\"('Fe', 'Li', 'O')\",OTHERS,False\nmp-1244909,\"{'Al': 40.0, 'O': 60.0}\",\"('Al', 'O')\",OTHERS,False\nmp-1189350,\"{'La': 10.0, 'As': 2.0, 'Pb': 6.0}\",\"('As', 'La', 'Pb')\",OTHERS,False\nmp-1080340,\"{'Ce': 2.0, 'Se': 4.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-780005,\"{'Li': 8.0, 'Mn': 2.0, 'V': 6.0, 'P': 16.0, 'O': 56.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-771026,\"{'Na': 4.0, 'B': 2.0, 'Sb': 2.0, 'S': 2.0, 'O': 14.0}\",\"('B', 'Na', 'O', 'S', 'Sb')\",OTHERS,False\nmp-1075098,\"{'Mg': 6.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-626219,\"{'H': 20.0, 'Cl': 4.0, 'O': 24.0}\",\"('Cl', 'H', 'O')\",OTHERS,False\nmp-1097373,\"{'Sc': 1.0, 'In': 1.0, 'Hg': 2.0}\",\"('Hg', 'In', 'Sc')\",OTHERS,False\nmp-9942,\"{'S': 4.0, 'Ti': 2.0, 'Fe': 1.0}\",\"('Fe', 'S', 'Ti')\",OTHERS,False\nmp-1185069,\"{'La': 1.0, 'Lu': 1.0, 'Tl': 2.0}\",\"('La', 'Lu', 'Tl')\",OTHERS,False\nmp-1184253,\"{'Er': 1.0, 'Tm': 1.0, 'Ag': 2.0}\",\"('Ag', 'Er', 'Tm')\",OTHERS,False\nmp-1212971,\"{'Dy': 2.0, 'Be': 2.0, 'N': 2.0, 'F': 12.0}\",\"('Be', 'Dy', 'F', 'N')\",OTHERS,False\nmp-1074201,\"{'Mg': 8.0, 'Si': 14.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1095140,\"{'Er': 4.0, 'Co': 2.0, 'Ge': 4.0}\",\"('Co', 'Er', 'Ge')\",OTHERS,False\nmp-1200829,\"{'Na': 4.0, 'Sb': 4.0, 'F': 24.0}\",\"('F', 'Na', 'Sb')\",OTHERS,False\nmp-1197782,\"{'K': 6.0, 'V': 10.0, 'Te': 8.0, 'H': 16.0, 'O': 48.0}\",\"('H', 'K', 'O', 'Te', 'V')\",OTHERS,False\nmp-764723,\"{'Li': 2.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1095131,\"{'Sr': 1.0, 'Ta': 2.0, 'O': 7.0}\",\"('O', 'Sr', 'Ta')\",OTHERS,False\nmp-1097388,\"{'Y': 1.0, 'Zn': 1.0, 'Pd': 2.0}\",\"('Pd', 'Y', 'Zn')\",OTHERS,False\nmp-1672,\"{'S': 1.0, 'Ca': 1.0}\",\"('Ca', 'S')\",OTHERS,False\nmp-1175066,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-23297,\"{'F': 6.0, 'Br': 2.0}\",\"('Br', 'F')\",OTHERS,False\nmp-1197684,\"{'Na': 20.0, 'Al': 4.0, 'H': 32.0, 'O': 32.0}\",\"('Al', 'H', 'Na', 'O')\",OTHERS,False\nmp-16455,\"{'S': 10.0, 'Zn': 2.0, 'Ba': 2.0, 'Nd': 4.0}\",\"('Ba', 'Nd', 'S', 'Zn')\",OTHERS,False\nmp-1198676,\"{'Cs': 16.0, 'Fe': 4.0, 'O': 14.0}\",\"('Cs', 'Fe', 'O')\",OTHERS,False\nmp-770745,\"{'Li': 8.0, 'Cr': 8.0, 'O': 28.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-760396,\"{'Ta': 2.0, 'Al': 2.0, 'O': 8.0}\",\"('Al', 'O', 'Ta')\",OTHERS,False\nmp-757516,\"{'Li': 4.0, 'Ni': 16.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-1193512,\"{'Cu': 3.0, 'I': 6.0, 'O': 20.0}\",\"('Cu', 'I', 'O')\",OTHERS,False\nmp-1246055,\"{'Fe': 2.0, 'C': 12.0, 'N': 18.0}\",\"('C', 'Fe', 'N')\",OTHERS,False\nmp-20205,\"{'Yb': 8.0, 'Cu': 8.0, 'O': 20.0}\",\"('Cu', 'O', 'Yb')\",OTHERS,False\nmp-1095701,\"{'Mg': 30.0, 'Sn': 1.0, 'C': 1.0, 'O': 32.0}\",\"('C', 'Mg', 'O', 'Sn')\",OTHERS,False\nmp-1209321,\"{'Rb': 8.0, 'O': 16.0, 'F': 8.0}\",\"('F', 'O', 'Rb')\",OTHERS,False\nmp-1194932,\"{'Sm': 12.0, 'Se': 6.0, 'O': 6.0, 'F': 12.0}\",\"('F', 'O', 'Se', 'Sm')\",OTHERS,False\nmp-1079462,\"{'Sm': 2.0, 'Ge': 4.0, 'Pt': 4.0}\",\"('Ge', 'Pt', 'Sm')\",OTHERS,False\nmp-976339,\"{'Li': 1.0, 'Tm': 2.0, 'In': 1.0}\",\"('In', 'Li', 'Tm')\",OTHERS,False\nmp-862762,\"{'Pr': 12.0, 'Co': 4.0}\",\"('Co', 'Pr')\",OTHERS,False\nmp-760823,\"{'Li': 22.0, 'V': 8.0, 'F': 48.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1187498,\"{'Tl': 3.0, 'Zn': 1.0}\",\"('Tl', 'Zn')\",OTHERS,False\nmp-569898,\"{'Ce': 3.0, 'Ga': 1.0, 'Br': 3.0}\",\"('Br', 'Ce', 'Ga')\",OTHERS,False\nmp-1229238,\"{'Ba': 10.0, 'Gd': 4.0, 'Y': 1.0, 'Cu': 15.0, 'O': 35.0}\",\"('Ba', 'Cu', 'Gd', 'O', 'Y')\",OTHERS,False\nmp-1245543,\"{'Ti': 24.0, 'C': 24.0, 'N': 56.0}\",\"('C', 'N', 'Ti')\",OTHERS,False\nmp-984772,\"{'Ce': 3.0, 'Zn': 1.0}\",\"('Ce', 'Zn')\",OTHERS,False\nmp-1185862,\"{'Mg': 1.0, 'F': 3.0}\",\"('F', 'Mg')\",OTHERS,False\nmp-570900,\"{'K': 16.0, 'Sn': 36.0}\",\"('K', 'Sn')\",OTHERS,False\nmp-1094375,\"{'Y': 10.0, 'Mg': 2.0}\",\"('Mg', 'Y')\",OTHERS,False\nmp-1213845,\"{'Co': 2.0, 'Cu': 4.0, 'Ge': 2.0, 'Se': 8.0}\",\"('Co', 'Cu', 'Ge', 'Se')\",OTHERS,False\nmp-1246723,\"{'Sm': 2.0, 'Mg': 2.0, 'Cr': 2.0, 'S': 8.0}\",\"('Cr', 'Mg', 'S', 'Sm')\",OTHERS,False\nmvc-5049,\"{'Mg': 4.0, 'V': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Mg', 'O', 'V', 'W')\",OTHERS,False\nmp-1186143,\"{'Na': 1.0, 'Lu': 3.0}\",\"('Lu', 'Na')\",OTHERS,False\nmp-867761,\"{'Sc': 2.0, 'Co': 1.0, 'Ru': 1.0}\",\"('Co', 'Ru', 'Sc')\",OTHERS,False\nmp-1215347,\"{'Zr': 6.0, 'Co': 2.0, 'O': 1.0}\",\"('Co', 'O', 'Zr')\",OTHERS,False\nmp-1006367,\"{'Ce': 8.0, 'Hf': 4.0, 'Se': 20.0}\",\"('Ce', 'Hf', 'Se')\",OTHERS,False\nmp-1005829,\"{'Sm': 2.0, 'Mn': 12.0, 'P': 7.0}\",\"('Mn', 'P', 'Sm')\",OTHERS,False\nmp-1207518,\"{'Yb': 4.0, 'Rh': 4.0, 'O': 12.0}\",\"('O', 'Rh', 'Yb')\",OTHERS,False\nmp-601820,\"{'Fe': 3.0, 'Co': 1.0}\",\"('Co', 'Fe')\",OTHERS,False\nmp-1079700,\"{'Dy': 6.0, 'Co': 1.0, 'Te': 2.0}\",\"('Co', 'Dy', 'Te')\",OTHERS,False\nmp-1175544,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-758091,\"{'Li': 2.0, 'V': 2.0, 'F': 8.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1076488,\"{'Sr': 24.0, 'Ca': 8.0, 'Fe': 12.0, 'Co': 20.0, 'O': 80.0}\",\"('Ca', 'Co', 'Fe', 'O', 'Sr')\",OTHERS,False\nmvc-6059,\"{'Zn': 2.0, 'Cu': 4.0, 'O': 8.0}\",\"('Cu', 'O', 'Zn')\",OTHERS,False\nmp-1177982,\"{'Li': 2.0, 'Fe': 1.0, 'B': 2.0, 'O': 6.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-680614,\"{'Yb': 32.0, 'Li': 4.0, 'Ge': 52.0}\",\"('Ge', 'Li', 'Yb')\",OTHERS,False\nmp-460,\"{'Zn': 1.0, 'Pr': 1.0}\",\"('Pr', 'Zn')\",OTHERS,False\nmp-722342,\"{'Na': 4.0, 'Ca': 8.0, 'B': 36.0, 'H': 32.0, 'O': 80.0}\",\"('B', 'Ca', 'H', 'Na', 'O')\",OTHERS,False\nmp-735491,\"{'Ca': 1.0, 'Mg': 2.0, 'H': 24.0, 'Cl': 6.0, 'O': 12.0}\",\"('Ca', 'Cl', 'H', 'Mg', 'O')\",OTHERS,False\nmp-1223246,\"{'La': 2.0, 'Ga': 1.0, 'Ni': 1.0, 'O': 6.0}\",\"('Ga', 'La', 'Ni', 'O')\",OTHERS,False\nmp-1219249,\"{'Si': 3.0, 'P': 3.0, 'Ir': 1.0}\",\"('Ir', 'P', 'Si')\",OTHERS,False\nmp-1185514,\"{'Lu': 1.0, 'Ge': 1.0, 'O': 3.0}\",\"('Ge', 'Lu', 'O')\",OTHERS,False\nmp-1187545,\"{'Tl': 3.0, 'Ag': 1.0}\",\"('Ag', 'Tl')\",OTHERS,False\nmp-695708,\"{'Ba': 14.0, 'Si': 2.0, 'B': 6.0, 'N': 2.0, 'O': 26.0}\",\"('B', 'Ba', 'N', 'O', 'Si')\",OTHERS,False\nmp-780778,\"{'Li': 4.0, 'Mn': 14.0, 'P': 16.0, 'O': 56.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-667288,\"{'K': 16.0, 'P': 32.0, 'Pb': 8.0, 'O': 96.0}\",\"('K', 'O', 'P', 'Pb')\",OTHERS,False\nmp-753723,\"{'Li': 4.0, 'Mn': 4.0, 'O': 2.0, 'F': 12.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1013561,\"{'Sr': 3.0, 'Sb': 1.0, 'As': 1.0}\",\"('As', 'Sb', 'Sr')\",OTHERS,False\nmp-1220780,\"{'Na': 1.0, 'La': 1.0, 'Nb': 4.0, 'O': 12.0}\",\"('La', 'Na', 'Nb', 'O')\",OTHERS,False\nmp-1220298,\"{'Ni': 17.0, 'Ge': 4.0, 'Se': 4.0}\",\"('Ge', 'Ni', 'Se')\",OTHERS,False\nmp-1189374,\"{'Ho': 12.0, 'Ga': 2.0, 'Ni': 4.0}\",\"('Ga', 'Ho', 'Ni')\",OTHERS,False\nmp-17849,\"{'O': 1.0, 'Fe': 16.0, 'Ho': 6.0}\",\"('Fe', 'Ho', 'O')\",OTHERS,False\nmp-1205212,\"{'B': 128.0, 'F': 192.0}\",\"('B', 'F')\",OTHERS,False\nmp-755821,\"{'Li': 5.0, 'Cu': 1.0, 'P': 2.0, 'O': 8.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-757073,\"{'Ba': 4.0, 'Li': 1.0, 'Y': 2.0, 'Cu': 5.0, 'O': 14.0}\",\"('Ba', 'Cu', 'Li', 'O', 'Y')\",OTHERS,False\nmp-1207212,\"{'Li': 1.0, 'Hf': 1.0, 'S': 2.0}\",\"('Hf', 'Li', 'S')\",OTHERS,False\nmp-1219172,\"{'Sm': 2.0, 'Sb': 1.0, 'S': 1.0}\",\"('S', 'Sb', 'Sm')\",OTHERS,False\nmp-569207,\"{'K': 4.0, 'Os': 2.0, 'N': 2.0, 'Cl': 10.0}\",\"('Cl', 'K', 'N', 'Os')\",OTHERS,False\nmp-1220985,\"{'Nd': 10.0, 'Ta': 30.0, 'O': 90.0}\",\"('Nd', 'O', 'Ta')\",OTHERS,False\nmp-780275,\"{'Ag': 2.0, 'B': 2.0, 'O': 6.0}\",\"('Ag', 'B', 'O')\",OTHERS,False\nmp-1213452,\"{'H': 20.0, 'Pb': 4.0, 'C': 8.0, 'S': 4.0, 'I': 4.0, 'N': 24.0}\",\"('C', 'H', 'I', 'N', 'Pb', 'S')\",OTHERS,False\nmp-8001,\"{'Li': 1.0, 'O': 2.0, 'Al': 1.0}\",\"('Al', 'Li', 'O')\",OTHERS,False\nmp-1173595,\"{'Sr': 14.0, 'Nb': 6.0, 'O': 29.0}\",\"('Nb', 'O', 'Sr')\",OTHERS,False\nmp-505343,\"{'U': 2.0, 'Co': 8.0, 'B': 8.0}\",\"('B', 'Co', 'U')\",OTHERS,False\nmp-1071904,\"{'Pr': 2.0, 'Cu': 4.0}\",\"('Cu', 'Pr')\",OTHERS,False\nmp-761193,\"{'Li': 2.0, 'Cu': 8.0, 'P': 6.0, 'O': 24.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-865234,\"{'Ta': 1.0, 'Zn': 1.0, 'Ru': 2.0}\",\"('Ru', 'Ta', 'Zn')\",OTHERS,False\nmp-1035359,\"{'Mg': 14.0, 'Nb': 1.0, 'Cu': 1.0, 'O': 16.0}\",\"('Cu', 'Mg', 'Nb', 'O')\",OTHERS,False\nmp-1178636,\"{'Zr': 8.0, 'N': 16.0, 'F': 48.0}\",\"('F', 'N', 'Zr')\",OTHERS,False\nmp-1229224,\"{'Al': 2.0, 'B': 4.0, 'Pb': 12.0, 'O': 14.0, 'F': 14.0}\",\"('Al', 'B', 'F', 'O', 'Pb')\",OTHERS,False\nmp-36641,\"{'Cd': 1.0, 'Ga': 6.0, 'Te': 10.0}\",\"('Cd', 'Ga', 'Te')\",OTHERS,False\nAl 6 Cu 1 Li 3,\"{'Al': 6.0, 'Cu': 1.0, 'Li': 3.0}\",\"('Al', 'Cu', 'Li')\",QC,False\nmp-676296,\"{'U': 1.0, 'Bi': 4.0, 'O': 8.0}\",\"('Bi', 'O', 'U')\",OTHERS,False\nmp-1212634,\"{'Er': 4.0, 'Te': 4.0, 'As': 4.0}\",\"('As', 'Er', 'Te')\",OTHERS,False\nmp-24416,\"{'H': 2.0, 'Mn': 2.0}\",\"('H', 'Mn')\",OTHERS,False\nmp-760378,\"{'Li': 2.0, 'Ti': 4.0, 'O': 8.0}\",\"('Li', 'O', 'Ti')\",OTHERS,False\nmp-18474,\"{'Ge': 2.0, 'Se': 12.0, 'Ag': 16.0}\",\"('Ag', 'Ge', 'Se')\",OTHERS,False\nmp-755773,\"{'Mn': 6.0, 'O': 7.0, 'F': 5.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-865361,\"{'Tm': 2.0, 'Mg': 1.0, 'Os': 1.0}\",\"('Mg', 'Os', 'Tm')\",OTHERS,False\nmp-1111384,\"{'K': 3.0, 'Pr': 1.0, 'Cl': 6.0}\",\"('Cl', 'K', 'Pr')\",OTHERS,False\nmp-861905,\"{'Li': 1.0, 'Bi': 1.0, 'Pd': 2.0}\",\"('Bi', 'Li', 'Pd')\",OTHERS,False\nmp-1217074,\"{'Ti': 2.0, 'H': 1.0, 'C': 1.0}\",\"('C', 'H', 'Ti')\",OTHERS,False\nmp-1250217,\"{'Zn': 6.0, 'Cu': 4.0, 'Si': 8.0, 'O': 28.0}\",\"('Cu', 'O', 'Si', 'Zn')\",OTHERS,False\nmp-1219194,\"{'Sm': 12.0, 'Ta': 4.0, 'Ti': 8.0, 'O': 42.0}\",\"('O', 'Sm', 'Ta', 'Ti')\",OTHERS,False\nmp-1075975,\"{'Eu': 1.0, 'Co': 1.0, 'O': 3.0}\",\"('Co', 'Eu', 'O')\",OTHERS,False\nmp-1228231,\"{'Ba': 6.0, 'Ti': 2.0, 'Fe': 4.0, 'O': 18.0}\",\"('Ba', 'Fe', 'O', 'Ti')\",OTHERS,False\nmp-1014910,\"{'Cr': 4.0, 'N': 8.0}\",\"('Cr', 'N')\",OTHERS,False\nmp-736122,\"{'Ba': 18.0, 'Ca': 6.0, 'Zr': 6.0, 'W': 6.0, 'O': 54.0}\",\"('Ba', 'Ca', 'O', 'W', 'Zr')\",OTHERS,False\nmp-1080442,\"{'U': 3.0, 'Ga': 3.0, 'Pd': 3.0}\",\"('Ga', 'Pd', 'U')\",OTHERS,False\nmp-1228558,\"{'Al': 1.0, 'Si': 5.0, 'C': 2.0, 'O': 12.0}\",\"('Al', 'C', 'O', 'Si')\",OTHERS,False\nmp-558203,\"{'Si': 32.0, 'O': 64.0}\",\"('O', 'Si')\",OTHERS,False\nmp-744517,\"{'Li': 8.0, 'Mo': 8.0, 'H': 48.0, 'N': 8.0, 'O': 40.0}\",\"('H', 'Li', 'Mo', 'N', 'O')\",OTHERS,False\nmp-1220796,\"{'Na': 10.0, 'Sr': 2.0, 'Nb': 2.0, 'As': 8.0}\",\"('As', 'Na', 'Nb', 'Sr')\",OTHERS,False\nmp-1110992,\"{'Na': 2.0, 'Tl': 1.0, 'Cu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cu', 'Na', 'Tl')\",OTHERS,False\nmp-1200509,\"{'Mn': 1.0, 'H': 36.0, 'C': 60.0, 'N': 12.0}\",\"('C', 'H', 'Mn', 'N')\",OTHERS,False\nmp-1187007,\"{'Si': 1.0, 'Pb': 3.0}\",\"('Pb', 'Si')\",OTHERS,False\nmp-1224945,\"{'Fe': 1.0, 'Cu': 1.0}\",\"('Cu', 'Fe')\",OTHERS,False\nmp-1075570,\"{'Mg': 10.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-545512,\"{'O': 2.0, 'Ca': 2.0}\",\"('Ca', 'O')\",OTHERS,False\nmp-1176011,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1103472,\"{'Na': 2.0, 'U': 1.0, 'F': 8.0}\",\"('F', 'Na', 'U')\",OTHERS,False\nmp-1014230,\"{'Ti': 1.0, 'Zn': 1.0}\",\"('Ti', 'Zn')\",OTHERS,False\nmp-555962,\"{'Li': 4.0, 'Mo': 4.0, 'As': 4.0, 'O': 24.0}\",\"('As', 'Li', 'Mo', 'O')\",OTHERS,False\nmp-774712,\"{'Li': 2.0, 'Cu': 2.0, 'S': 2.0}\",\"('Cu', 'Li', 'S')\",OTHERS,False\nmp-29276,\"{'O': 34.0, 'P': 12.0, 'Cd': 4.0}\",\"('Cd', 'O', 'P')\",OTHERS,False\nmp-27439,\"{'O': 2.0, 'I': 2.0, 'Tm': 2.0}\",\"('I', 'O', 'Tm')\",OTHERS,False\nmvc-7669,\"{'Ba': 1.0, 'Y': 1.0, 'Mn': 1.0, 'Cu': 1.0, 'O': 5.0}\",\"('Ba', 'Cu', 'Mn', 'O', 'Y')\",OTHERS,False\nmp-540948,\"{'Zn': 2.0, 'Ni': 2.0, 'P': 8.0, 'O': 24.0}\",\"('Ni', 'O', 'P', 'Zn')\",OTHERS,False\nmp-6075,\"{'Li': 2.0, 'B': 10.0, 'O': 20.0, 'Ba': 4.0}\",\"('B', 'Ba', 'Li', 'O')\",OTHERS,False\nmvc-13558,\"{'Fe': 4.0, 'S': 8.0}\",\"('Fe', 'S')\",OTHERS,False\nmp-18348,\"{'O': 28.0, 'P': 8.0, 'K': 4.0, 'Ga': 4.0}\",\"('Ga', 'K', 'O', 'P')\",OTHERS,False\nAl 72 Pd 17 Ru 11,\"{'Al': 72.0, 'Pd': 17.0, 'Ru': 11.0}\",\"('Al', 'Pd', 'Ru')\",QC,False\nmp-555439,\"{'Cs': 2.0, 'Li': 6.0, 'F': 8.0}\",\"('Cs', 'F', 'Li')\",OTHERS,False\nmp-1245934,\"{'Cd': 2.0, 'C': 16.0, 'N': 12.0}\",\"('C', 'Cd', 'N')\",OTHERS,False\nmp-1092278,\"{'Mn': 2.0, 'B': 4.0, 'Mo': 4.0}\",\"('B', 'Mn', 'Mo')\",OTHERS,False\nmp-7719,\"{'O': 16.0, 'Na': 2.0, 'S': 4.0, 'Tm': 2.0}\",\"('Na', 'O', 'S', 'Tm')\",OTHERS,False\nmp-18962,\"{'O': 6.0, 'Ca': 1.0, 'Sr': 2.0, 'Mo': 1.0}\",\"('Ca', 'Mo', 'O', 'Sr')\",OTHERS,False\nmp-1238791,\"{'Cr': 4.0, 'Cu': 2.0, 'S': 8.0}\",\"('Cr', 'Cu', 'S')\",OTHERS,False\nmp-1176421,\"{'Mn': 2.0, 'Zn': 8.0, 'O': 10.0}\",\"('Mn', 'O', 'Zn')\",OTHERS,False\nmp-1253743,\"{'Ca': 4.0, 'Ti': 2.0, 'Al': 2.0, 'O': 10.0}\",\"('Al', 'Ca', 'O', 'Ti')\",OTHERS,False\nmp-1245401,\"{'Mn': 1.0, 'Cr': 1.0, 'N': 2.0}\",\"('Cr', 'Mn', 'N')\",OTHERS,False\nmp-772613,\"{'Li': 4.0, 'Cr': 6.0, 'Ni': 2.0, 'O': 16.0}\",\"('Cr', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-1114453,\"{'Rb': 2.0, 'Na': 1.0, 'Pr': 1.0, 'I': 6.0}\",\"('I', 'Na', 'Pr', 'Rb')\",OTHERS,False\nmp-1245337,\"{'Si': 40.0, 'Ni': 16.0, 'N': 64.0}\",\"('N', 'Ni', 'Si')\",OTHERS,False\nmp-753509,\"{'Li': 3.0, 'Mn': 1.0, 'O': 1.0, 'F': 4.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1112902,\"{'Cs': 2.0, 'Hg': 1.0, 'Sb': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Hg', 'Sb')\",OTHERS,False\nmp-1032862,\"{'Mg': 6.0, 'Mn': 1.0, 'Fe': 1.0, 'O': 8.0}\",\"('Fe', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-10740,{'Pa': 1.0},\"('Pa',)\",OTHERS,False\nmp-685705,\"{'Mn': 17.0, 'Nb': 31.0, 'N': 48.0}\",\"('Mn', 'N', 'Nb')\",OTHERS,False\nmp-768177,\"{'Li': 8.0, 'V': 4.0, 'B': 4.0, 'O': 16.0}\",\"('B', 'Li', 'O', 'V')\",OTHERS,False\nmp-1096162,\"{'Mg': 2.0, 'Cd': 1.0, 'Ga': 1.0}\",\"('Cd', 'Ga', 'Mg')\",OTHERS,False\nmp-560409,\"{'P': 24.0, 'S': 24.0, 'N': 48.0, 'F': 40.0}\",\"('F', 'N', 'P', 'S')\",OTHERS,False\nmp-1025034,\"{'Th': 1.0, 'Ni': 2.0, 'B': 2.0, 'C': 1.0}\",\"('B', 'C', 'Ni', 'Th')\",OTHERS,False\nmp-1226011,\"{'Co': 1.0, 'Si': 4.0, 'Ni': 3.0}\",\"('Co', 'Ni', 'Si')\",OTHERS,False\nmvc-9211,\"{'Ti': 2.0, 'Zn': 2.0, 'Ni': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Ni', 'O', 'P', 'Ti', 'Zn')\",OTHERS,False\nmp-1229165,\"{'Ag': 3.0, 'Bi': 7.0, 'S': 12.0}\",\"('Ag', 'Bi', 'S')\",OTHERS,False\nmp-13156,\"{'Ag': 2.0, 'Hf': 2.0}\",\"('Ag', 'Hf')\",OTHERS,False\nmp-1173858,\"{'Na': 7.0, 'Sr': 6.0, 'Nd': 7.0, 'Ti': 20.0, 'O': 60.0}\",\"('Na', 'Nd', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1147677,\"{'Ca': 1.0, 'Cu': 6.0, 'O': 8.0}\",\"('Ca', 'Cu', 'O')\",OTHERS,False\nZn 47.3 Mg 27 Al 10.7,\"{'Zn': 47.3, 'Mg': 27.0, 'Al': 10.7}\",\"('Al', 'Mg', 'Zn')\",AC,False\nmp-1103519,\"{'K': 4.0, 'Cu': 4.0, 'O': 4.0}\",\"('Cu', 'K', 'O')\",OTHERS,False\nmp-1104636,\"{'Er': 2.0, 'Al': 6.0, 'C': 6.0}\",\"('Al', 'C', 'Er')\",OTHERS,False\nmp-772436,\"{'Li': 16.0, 'Al': 8.0, 'Fe': 8.0, 'O': 32.0}\",\"('Al', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1078698,\"{'Zr': 2.0, 'Cu': 2.0, 'Ge': 2.0, 'As': 2.0}\",\"('As', 'Cu', 'Ge', 'Zr')\",OTHERS,False\nmp-1211200,\"{'Mg': 2.0, 'U': 4.0, 'P': 4.0, 'H': 40.0, 'O': 44.0}\",\"('H', 'Mg', 'O', 'P', 'U')\",OTHERS,False\nmvc-6262,\"{'Mg': 4.0, 'Bi': 8.0, 'O': 16.0}\",\"('Bi', 'Mg', 'O')\",OTHERS,False\nmvc-4222,\"{'Ge': 12.0, 'Te': 8.0, 'O': 48.0}\",\"('Ge', 'O', 'Te')\",OTHERS,False\nmp-733,\"{'O': 6.0, 'Ge': 3.0}\",\"('Ge', 'O')\",OTHERS,False\nmp-1194955,\"{'Na': 6.0, 'Gd': 2.0, 'C': 6.0, 'O': 18.0}\",\"('C', 'Gd', 'Na', 'O')\",OTHERS,False\nmp-780360,\"{'Na': 32.0, 'Gd': 8.0, 'O': 28.0}\",\"('Gd', 'Na', 'O')\",OTHERS,False\nmp-3419,\"{'F': 8.0, 'Rb': 2.0, 'Au': 2.0}\",\"('Au', 'F', 'Rb')\",OTHERS,False\nmp-775805,\"{'Zr': 8.0, 'N': 8.0, 'O': 4.0}\",\"('N', 'O', 'Zr')\",OTHERS,False\nmp-781594,\"{'Li': 2.0, 'Mn': 6.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1065668,\"{'Gd': 1.0, 'Ni': 1.0, 'C': 2.0}\",\"('C', 'Gd', 'Ni')\",OTHERS,False\nmp-33581,\"{'Ba': 9.0, 'Nb': 10.0, 'O': 30.0}\",\"('Ba', 'Nb', 'O')\",OTHERS,False\nmp-1221677,\"{'Mn': 1.0, 'H': 6.0, 'N': 2.0, 'Cl': 2.0}\",\"('Cl', 'H', 'Mn', 'N')\",OTHERS,False\nmp-12838,\"{'Si': 6.0, 'Fe': 2.0, 'Tm': 6.0}\",\"('Fe', 'Si', 'Tm')\",OTHERS,False\nmp-580539,\"{'Gd': 3.0, 'Al': 1.0, 'C': 1.0}\",\"('Al', 'C', 'Gd')\",OTHERS,False\nmp-1225045,\"{'Er': 2.0, 'Al': 3.0, 'Co': 1.0}\",\"('Al', 'Co', 'Er')\",OTHERS,False\nmp-12243,\"{'F': 14.0, 'Si': 2.0, 'Rb': 6.0}\",\"('F', 'Rb', 'Si')\",OTHERS,False\nZn 17 Yb 3,\"{'Zn': 17.0, 'Yb': 3.0}\",\"('Yb', 'Zn')\",AC,False\nmp-1194349,\"{'Nb': 12.0, 'Ni': 12.0, 'C': 4.0}\",\"('C', 'Nb', 'Ni')\",OTHERS,False\nmp-975079,\"{'Mn': 2.0, 'Zn': 6.0}\",\"('Mn', 'Zn')\",OTHERS,False\nmp-1192447,\"{'Nd': 6.0, 'Mg': 23.0, 'C': 1.0}\",\"('C', 'Mg', 'Nd')\",OTHERS,False\nmp-14091,\"{'Al': 2.0, 'Se': 4.0, 'Ag': 2.0}\",\"('Ag', 'Al', 'Se')\",OTHERS,False\nmp-1186120,\"{'Np': 1.0, 'Co': 3.0}\",\"('Co', 'Np')\",OTHERS,False\nmp-768399,\"{'Ba': 6.0, 'Y': 4.0, 'Br': 24.0}\",\"('Ba', 'Br', 'Y')\",OTHERS,False\nmp-759281,\"{'Li': 12.0, 'Fe': 12.0, 'Si': 12.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-722369,\"{'Na': 12.0, 'B': 20.0, 'H': 8.0, 'O': 40.0}\",\"('B', 'H', 'Na', 'O')\",OTHERS,False\nmp-540550,\"{'Na': 4.0, 'Cl': 4.0, 'O': 20.0, 'H': 8.0}\",\"('Cl', 'H', 'Na', 'O')\",OTHERS,False\nmp-1228892,\"{'Cs': 2.0, 'Cr': 2.0, 'Cu': 2.0, 'F': 12.0}\",\"('Cr', 'Cs', 'Cu', 'F')\",OTHERS,False\nmp-759320,\"{'Li': 9.0, 'Mn': 9.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1205384,\"{'La': 4.0, 'Te': 8.0}\",\"('La', 'Te')\",OTHERS,False\nmp-510547,\"{'Cu': 8.0, 'Cl': 4.0, 'O': 12.0, 'H': 12.0}\",\"('Cl', 'Cu', 'H', 'O')\",OTHERS,False\nmp-8248,\"{'O': 6.0, 'Rb': 4.0, 'Te': 2.0}\",\"('O', 'Rb', 'Te')\",OTHERS,False\nmp-1120786,\"{'V': 2.0, 'Bi': 4.0}\",\"('Bi', 'V')\",OTHERS,False\nmp-1209066,\"{'Sb': 4.0, 'As': 2.0, 'S': 4.0}\",\"('As', 'S', 'Sb')\",OTHERS,False\nmp-866114,\"{'Hf': 1.0, 'Tc': 2.0, 'W': 1.0}\",\"('Hf', 'Tc', 'W')\",OTHERS,False\nmp-1183173,\"{'Al': 1.0, 'Ga': 1.0, 'Ni': 2.0}\",\"('Al', 'Ga', 'Ni')\",OTHERS,False\nmp-12071,\"{'Ti': 6.0, 'As': 2.0}\",\"('As', 'Ti')\",OTHERS,False\nmp-1100700,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1208320,\"{'Tb': 4.0, 'Ni': 4.0, 'P': 4.0}\",\"('Ni', 'P', 'Tb')\",OTHERS,False\nmp-1238871,\"{'Ti': 4.0, 'Cr': 4.0, 'Ag': 4.0, 'S': 16.0}\",\"('Ag', 'Cr', 'S', 'Ti')\",OTHERS,False\nmp-556006,\"{'Os': 4.0, 'Cl': 16.0, 'O': 4.0}\",\"('Cl', 'O', 'Os')\",OTHERS,False\nmp-1195604,\"{'Mg': 1.0, 'H': 30.0, 'C': 2.0, 'S': 2.0, 'O': 18.0}\",\"('C', 'H', 'Mg', 'O', 'S')\",OTHERS,False\nmp-19771,\"{'Co': 2.0, 'Ge': 2.0, 'Dy': 1.0}\",\"('Co', 'Dy', 'Ge')\",OTHERS,False\nmp-6452,\"{'O': 20.0, 'Zn': 4.0, 'Ba': 4.0, 'Sm': 8.0}\",\"('Ba', 'O', 'Sm', 'Zn')\",OTHERS,False\nmp-3922,\"{'S': 8.0, 'Ag': 4.0, 'Sb': 4.0}\",\"('Ag', 'S', 'Sb')\",OTHERS,False\nmvc-8489,\"{'Ta': 4.0, 'Ni': 4.0, 'P': 8.0, 'O': 36.0}\",\"('Ni', 'O', 'P', 'Ta')\",OTHERS,False\nmp-1221218,\"{'Na': 8.0, 'Eu': 4.0, 'Sn': 2.0, 'As': 8.0}\",\"('As', 'Eu', 'Na', 'Sn')\",OTHERS,False\nmp-1020018,\"{'Li': 20.0, 'B': 4.0, 'S': 16.0, 'O': 64.0}\",\"('B', 'Li', 'O', 'S')\",OTHERS,False\nmp-1201589,\"{'Fe': 6.0, 'Se': 6.0, 'O': 20.0}\",\"('Fe', 'O', 'Se')\",OTHERS,False\nmp-1214100,\"{'Ca': 2.0, 'H': 1.0, 'I': 2.0}\",\"('Ca', 'H', 'I')\",OTHERS,False\nmp-24653,\"{'H': 32.0, 'N': 8.0, 'F': 20.0, 'Ti': 4.0}\",\"('F', 'H', 'N', 'Ti')\",OTHERS,False\nmp-1226695,\"{'Co': 2.0, 'H': 30.0, 'Br': 4.0, 'N': 12.0, 'O': 4.0}\",\"('Br', 'Co', 'H', 'N', 'O')\",OTHERS,False\nmp-1225584,\"{'Er': 1.0, 'Al': 1.0, 'Cu': 4.0}\",\"('Al', 'Cu', 'Er')\",OTHERS,False\nmp-1222566,\"{'Li': 9.0, 'Mn': 3.0, 'N': 4.0}\",\"('Li', 'Mn', 'N')\",OTHERS,False\nmp-1079120,\"{'Nb': 2.0, 'B': 4.0, 'Mo': 4.0}\",\"('B', 'Mo', 'Nb')\",OTHERS,False\nmp-569132,\"{'K': 12.0, 'In': 4.0, 'Cl': 24.0}\",\"('Cl', 'In', 'K')\",OTHERS,False\nmp-978527,\"{'Sm': 1.0, 'Dy': 1.0, 'Tl': 2.0}\",\"('Dy', 'Sm', 'Tl')\",OTHERS,False\nmp-22750,\"{'O': 8.0, 'P': 2.0, 'Pb': 3.0}\",\"('O', 'P', 'Pb')\",OTHERS,False\nmp-12697,\"{'Sc': 1.0, 'Mn': 6.0, 'Sn': 6.0}\",\"('Mn', 'Sc', 'Sn')\",OTHERS,False\nmp-1178571,\"{'Ag': 16.0, 'Ge': 16.0, 'O': 48.0}\",\"('Ag', 'Ge', 'O')\",OTHERS,False\nmp-1197685,\"{'Os': 16.0, 'C': 24.0}\",\"('C', 'Os')\",OTHERS,False\nmp-1069658,\"{'Eu': 1.0, 'Ge': 3.0, 'Rh': 1.0}\",\"('Eu', 'Ge', 'Rh')\",OTHERS,False\nmvc-11047,\"{'Mn': 2.0, 'S': 4.0}\",\"('Mn', 'S')\",OTHERS,False\nmp-735063,\"{'H': 28.0, 'C': 4.0, 'S': 4.0, 'N': 12.0, 'O': 16.0}\",\"('C', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-775750,\"{'Li': 4.0, 'Fe': 4.0, 'Si': 24.0, 'O': 60.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1216427,\"{'V': 6.0, 'Si': 1.0, 'Os': 1.0}\",\"('Os', 'Si', 'V')\",OTHERS,False\nmp-1227066,\"{'Ce': 1.0, 'Pr': 3.0, 'Fe': 34.0}\",\"('Ce', 'Fe', 'Pr')\",OTHERS,False\nmp-22627,\"{'Ga': 18.0, 'Ru': 6.0, 'Dy': 4.0}\",\"('Dy', 'Ga', 'Ru')\",OTHERS,False\nmp-765639,\"{'Sm': 11.0, 'Y': 5.0, 'O': 24.0}\",\"('O', 'Sm', 'Y')\",OTHERS,False\nmp-21447,\"{'P': 2.0, 'Co': 2.0, 'Nb': 8.0}\",\"('Co', 'Nb', 'P')\",OTHERS,False\nmvc-81,\"{'Ca': 4.0, 'Nb': 4.0, 'Sn': 2.0, 'O': 16.0}\",\"('Ca', 'Nb', 'O', 'Sn')\",OTHERS,False\nmp-1186542,\"{'Pm': 6.0, 'Tm': 2.0}\",\"('Pm', 'Tm')\",OTHERS,False\nmp-757811,\"{'Li': 6.0, 'V': 6.0, 'P': 8.0, 'O': 32.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1266684,\"{'Li': 8.0, 'Si': 8.0, 'Bi': 8.0, 'O': 32.0}\",\"('Bi', 'Li', 'O', 'Si')\",OTHERS,False\nmp-705305,\"{'V': 4.0, 'P': 12.0, 'O': 36.0}\",\"('O', 'P', 'V')\",OTHERS,False\nmp-1228382,\"{'Ba': 2.0, 'Nb': 1.0, 'Co': 1.0, 'O': 6.0}\",\"('Ba', 'Co', 'Nb', 'O')\",OTHERS,False\nmp-1181041,\"{'Ho': 4.0, 'W': 4.0, 'C': 8.0}\",\"('C', 'Ho', 'W')\",OTHERS,False\nmp-545488,\"{'Si': 4.0, 'O': 8.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1078877,\"{'Mg': 1.0, 'Si': 1.0, 'H': 2.0, 'O': 4.0}\",\"('H', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1194939,\"{'Na': 12.0, 'Mn': 3.0, 'S': 6.0, 'O': 24.0, 'F': 8.0}\",\"('F', 'Mn', 'Na', 'O', 'S')\",OTHERS,False\nmp-1216840,\"{'U': 5.0, 'P': 1.0, 'S': 4.0}\",\"('P', 'S', 'U')\",OTHERS,False\nmp-611062,\"{'Eu': 2.0, 'Sb': 4.0}\",\"('Eu', 'Sb')\",OTHERS,False\nmvc-3987,\"{'Mg': 4.0, 'Cr': 4.0, 'O': 12.0}\",\"('Cr', 'Mg', 'O')\",OTHERS,False\nmp-1213227,\"{'Dy': 4.0, 'Si': 12.0, 'Ni': 20.0}\",\"('Dy', 'Ni', 'Si')\",OTHERS,False\nmp-1233677,\"{'Ca': 1.0, 'Al': 2.0, 'Si': 6.0, 'O': 16.0}\",\"('Al', 'Ca', 'O', 'Si')\",OTHERS,False\nmp-864930,\"{'Li': 1.0, 'Ti': 1.0, 'Ir': 2.0}\",\"('Ir', 'Li', 'Ti')\",OTHERS,False\nmp-12722,\"{'Al': 4.0, 'Pd': 4.0, 'Tb': 4.0}\",\"('Al', 'Pd', 'Tb')\",OTHERS,False\nmp-1093670,\"{'Li': 1.0, 'Hg': 2.0, 'Rh': 1.0}\",\"('Hg', 'Li', 'Rh')\",OTHERS,False\nmp-1219105,\"{'Sm': 1.0, 'Al': 3.0, 'Cu': 1.0}\",\"('Al', 'Cu', 'Sm')\",OTHERS,False\nmvc-4456,\"{'Y': 2.0, 'Sn': 4.0, 'O': 8.0}\",\"('O', 'Sn', 'Y')\",OTHERS,False\nmp-1185219,\"{'La': 1.0, 'Ce': 1.0, 'Zn': 2.0}\",\"('Ce', 'La', 'Zn')\",OTHERS,False\nmp-758121,\"{'Fe': 4.0, 'C': 6.0, 'O': 18.0}\",\"('C', 'Fe', 'O')\",OTHERS,False\nmvc-3034,\"{'Mg': 8.0, 'Co': 10.0, 'Te': 6.0, 'O': 36.0}\",\"('Co', 'Mg', 'O', 'Te')\",OTHERS,False\nmp-1228574,\"{'Ba': 6.0, 'Ca': 6.0, 'Mg': 1.0, 'C': 13.0, 'O': 39.0}\",\"('Ba', 'C', 'Ca', 'Mg', 'O')\",OTHERS,False\nmp-1111171,\"{'K': 3.0, 'Pr': 1.0, 'I': 6.0}\",\"('I', 'K', 'Pr')\",OTHERS,False\nmp-676799,\"{'Ag': 8.0, 'Ge': 1.0, 'Te': 6.0}\",\"('Ag', 'Ge', 'Te')\",OTHERS,False\nmp-3285,\"{'O': 22.0, 'Na': 4.0, 'Ta': 8.0}\",\"('Na', 'O', 'Ta')\",OTHERS,False\nmp-1214095,\"{'Ca': 2.0, 'La': 1.0, 'Mn': 2.0, 'O': 7.0}\",\"('Ca', 'La', 'Mn', 'O')\",OTHERS,False\nmp-753089,\"{'Li': 2.0, 'Cu': 4.0, 'F': 12.0}\",\"('Cu', 'F', 'Li')\",OTHERS,False\nmp-561531,\"{'Y': 4.0, 'Si': 4.0, 'O': 14.0}\",\"('O', 'Si', 'Y')\",OTHERS,False\nmp-753724,\"{'Li': 3.0, 'Ni': 5.0, 'O': 1.0, 'F': 11.0}\",\"('F', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-771823,\"{'Li': 4.0, 'V': 4.0, 'Ni': 4.0, 'O': 16.0}\",\"('Li', 'Ni', 'O', 'V')\",OTHERS,False\nmp-1227032,\"{'Ca': 1.0, 'Mn': 1.0, 'O': 2.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,False\nmp-1201953,\"{'Ba': 6.0, 'Al': 4.0, 'B': 20.0, 'H': 8.0, 'O': 46.0}\",\"('Al', 'B', 'Ba', 'H', 'O')\",OTHERS,False\nmp-1223115,\"{'La': 8.0, 'Sb': 4.0, 'Pb': 2.0}\",\"('La', 'Pb', 'Sb')\",OTHERS,False\nmvc-8890,\"{'Zn': 4.0, 'Bi': 8.0, 'O': 20.0}\",\"('Bi', 'O', 'Zn')\",OTHERS,False\nmp-756912,\"{'Li': 4.0, 'Zn': 4.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Li', 'O', 'Zn')\",OTHERS,False\nmp-1202407,\"{'La': 4.0, 'B': 20.0, 'H': 20.0, 'N': 4.0, 'O': 56.0}\",\"('B', 'H', 'La', 'N', 'O')\",OTHERS,False\nmp-1079661,\"{'B': 1.0, 'C': 7.0}\",\"('B', 'C')\",OTHERS,False\nmp-1175277,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1106184,\"{'Mn': 4.0, 'B': 16.0}\",\"('B', 'Mn')\",OTHERS,False\nmp-1212495,\"{'Ge': 4.0, 'P': 8.0}\",\"('Ge', 'P')\",OTHERS,False\nmp-978802,\"{'Sm': 3.0, 'Pd': 1.0}\",\"('Pd', 'Sm')\",OTHERS,False\nmp-1196282,\"{'Cs': 8.0, 'H': 16.0, 'F': 24.0}\",\"('Cs', 'F', 'H')\",OTHERS,False\nmp-12237,\"{'O': 56.0, 'P': 20.0, 'Ho': 4.0}\",\"('Ho', 'O', 'P')\",OTHERS,False\nmp-865091,\"{'Hf': 1.0, 'Mn': 1.0, 'Rh': 2.0}\",\"('Hf', 'Mn', 'Rh')\",OTHERS,False\nmp-775910,\"{'Zr': 10.0, 'O': 20.0}\",\"('O', 'Zr')\",OTHERS,False\nmp-1187292,\"{'Tb': 6.0, 'Ge': 10.0}\",\"('Ge', 'Tb')\",OTHERS,False\nmp-573196,\"{'Cs': 6.0, 'Li': 4.0, 'Ga': 2.0, 'Mo': 8.0, 'O': 32.0}\",\"('Cs', 'Ga', 'Li', 'Mo', 'O')\",OTHERS,False\nmp-1204227,\"{'Al': 4.0, 'N': 12.0, 'O': 72.0}\",\"('Al', 'N', 'O')\",OTHERS,False\nmp-1207421,\"{'Zr': 12.0, 'Zn': 8.0}\",\"('Zn', 'Zr')\",OTHERS,False\nmp-570183,\"{'Pr': 1.0, 'As': 2.0, 'Pd': 2.0}\",\"('As', 'Pd', 'Pr')\",OTHERS,False\nmp-1222685,\"{'La': 1.0, 'Yb': 1.0, 'Al': 4.0}\",\"('Al', 'La', 'Yb')\",OTHERS,False\nmp-1223719,\"{'K': 4.0, 'Co': 4.0, 'Se': 6.0, 'O': 18.0}\",\"('Co', 'K', 'O', 'Se')\",OTHERS,False\nmp-1134210,\"{'Al': 4.0, 'Co': 13.0, 'Si': 2.0, 'Sb': 2.0, 'O': 28.0}\",\"('Al', 'Co', 'O', 'Sb', 'Si')\",OTHERS,False\nmp-1186070,\"{'Na': 3.0, 'Pr': 1.0}\",\"('Na', 'Pr')\",OTHERS,False\nmp-684766,\"{'Na': 1.0, 'Co': 2.0, 'H': 3.0, 'S': 2.0, 'O': 10.0}\",\"('Co', 'H', 'Na', 'O', 'S')\",OTHERS,False\nmp-1216708,\"{'V': 18.0, 'Ni': 12.0}\",\"('Ni', 'V')\",OTHERS,False\nmp-1188041,\"{'Zr': 3.0, 'Mn': 1.0}\",\"('Mn', 'Zr')\",OTHERS,False\nmp-1220691,\"{'Nb': 2.0, 'Cu': 1.0, 'S': 4.0}\",\"('Cu', 'Nb', 'S')\",OTHERS,False\nmp-1219682,\"{'Rb': 4.0, 'Nb': 12.0, 'P': 12.0, 'O': 60.0}\",\"('Nb', 'O', 'P', 'Rb')\",OTHERS,False\nmp-1185020,\"{'La': 1.0, 'Ho': 1.0, 'Tl': 2.0}\",\"('Ho', 'La', 'Tl')\",OTHERS,False\nmp-1066791,\"{'Tm': 1.0, 'Tl': 1.0, 'S': 2.0}\",\"('S', 'Tl', 'Tm')\",OTHERS,False\nmp-1213189,\"{'Cs': 2.0, 'Lu': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Cs', 'Lu', 'Mo', 'O')\",OTHERS,False\nmp-772024,\"{'Ba': 12.0, 'La': 4.0, 'Br': 36.0}\",\"('Ba', 'Br', 'La')\",OTHERS,False\nmp-981214,\"{'Sr': 1.0, 'Mg': 5.0}\",\"('Mg', 'Sr')\",OTHERS,False\nmp-1203905,\"{'K': 8.0, 'In': 4.0, 'Cl': 20.0, 'O': 4.0}\",\"('Cl', 'In', 'K', 'O')\",OTHERS,False\nmp-1206823,\"{'Pr': 1.0, 'I': 6.0}\",\"('I', 'Pr')\",OTHERS,False\nmp-1212903,\"{'Er': 4.0, 'Zn': 4.0, 'Rh': 4.0}\",\"('Er', 'Rh', 'Zn')\",OTHERS,False\nmp-720860,\"{'H': 36.0, 'C': 4.0, 'S': 4.0, 'O': 28.0, 'F': 12.0}\",\"('C', 'F', 'H', 'O', 'S')\",OTHERS,False\nmp-1174936,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nAg 41.7 In 43.2 Yb 15.1,\"{'Ag': 41.7, 'In': 43.2, 'Yb': 15.1}\",\"('Ag', 'In', 'Yb')\",AC,False\nmp-1365,\"{'Ti': 12.0, 'Ge': 10.0}\",\"('Ge', 'Ti')\",OTHERS,False\nmp-1190931,\"{'Na': 2.0, 'Fe': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Fe', 'Mo', 'Na', 'O')\",OTHERS,False\nmp-779863,\"{'Hf': 16.0, 'N': 16.0, 'O': 8.0}\",\"('Hf', 'N', 'O')\",OTHERS,False\nmp-569158,\"{'Dy': 4.0, 'Co': 14.0, 'B': 6.0}\",\"('B', 'Co', 'Dy')\",OTHERS,False\nmp-1217432,\"{'V': 20.0, 'Ga': 1.0, 'Ge': 4.0, 'S': 40.0}\",\"('Ga', 'Ge', 'S', 'V')\",OTHERS,False\nmp-1198712,\"{'Y': 20.0, 'Ir': 12.0}\",\"('Ir', 'Y')\",OTHERS,False\nmp-559420,\"{'Sb': 16.0, 'Pt': 4.0, 'C': 16.0, 'O': 16.0, 'F': 88.0}\",\"('C', 'F', 'O', 'Pt', 'Sb')\",OTHERS,False\nmp-2235,\"{'Rh': 4.0, 'Yb': 2.0}\",\"('Rh', 'Yb')\",OTHERS,False\nmp-1008734,\"{'Th': 1.0, 'H': 2.0}\",\"('H', 'Th')\",OTHERS,False\nmp-11694,\"{'Cs': 2.0, 'Pd': 3.0, 'Se': 4.0}\",\"('Cs', 'Pd', 'Se')\",OTHERS,False\nmp-774897,\"{'Li': 3.0, 'Mn': 2.0, 'Cr': 1.0, 'O': 6.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1201880,\"{'Tb': 6.0, 'Co': 8.0, 'Sn': 26.0}\",\"('Co', 'Sn', 'Tb')\",OTHERS,False\nmp-971769,{'Tm': 4.0},\"('Tm',)\",OTHERS,False\nmp-1245979,\"{'Zn': 4.0, 'Co': 4.0, 'N': 8.0}\",\"('Co', 'N', 'Zn')\",OTHERS,False\nmp-654051,\"{'Nb': 12.0, 'S': 2.0, 'I': 18.0}\",\"('I', 'Nb', 'S')\",OTHERS,False\nmp-755038,\"{'Li': 5.0, 'Fe': 1.0, 'O': 3.0, 'F': 2.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1195541,\"{'P': 8.0, 'Pb': 8.0, 'O': 24.0}\",\"('O', 'P', 'Pb')\",OTHERS,False\nmp-1339,\"{'Nb': 1.0, 'Ir': 3.0}\",\"('Ir', 'Nb')\",OTHERS,False\nmp-1209461,\"{'Rb': 4.0, 'W': 6.0, 'Se': 2.0, 'O': 24.0}\",\"('O', 'Rb', 'Se', 'W')\",OTHERS,False\nmp-677094,\"{'Mg': 1.0, 'Ti': 3.0, 'Nb': 2.0, 'Pb': 6.0, 'O': 18.0}\",\"('Mg', 'Nb', 'O', 'Pb', 'Ti')\",OTHERS,False\nmp-30260,\"{'Ni': 21.0, 'Zr': 8.0}\",\"('Ni', 'Zr')\",OTHERS,False\nmp-1227122,\"{'Ca': 1.0, 'Ta': 4.0, 'O': 14.0}\",\"('Ca', 'O', 'Ta')\",OTHERS,False\nmp-1096097,\"{'Sr': 2.0, 'Li': 1.0, 'Ir': 1.0}\",\"('Ir', 'Li', 'Sr')\",OTHERS,False\nmp-774592,\"{'Li': 6.0, 'Co': 3.0, 'Sb': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Co', 'Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1105624,\"{'Na': 6.0, 'La': 2.0, 'N': 12.0}\",\"('La', 'N', 'Na')\",OTHERS,False\nmp-772076,\"{'Sr': 4.0, 'Li': 4.0, 'Nb': 5.0, 'Fe': 1.0, 'O': 20.0}\",\"('Fe', 'Li', 'Nb', 'O', 'Sr')\",OTHERS,False\nmp-779424,\"{'Gd': 6.0, 'Ta': 2.0, 'O': 14.0}\",\"('Gd', 'O', 'Ta')\",OTHERS,False\nmp-770822,\"{'Li': 6.0, 'Fe': 2.0, 'Si': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1211449,\"{'K': 2.0, 'Ho': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Ho', 'K', 'Mo', 'O')\",OTHERS,False\nmp-1229226,\"{'Al': 8.0, 'Cu': 4.0, 'Si': 8.0, 'O': 32.0, 'F': 4.0}\",\"('Al', 'Cu', 'F', 'O', 'Si')\",OTHERS,False\nmp-1175560,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-757167,\"{'Li': 6.0, 'Si': 3.0, 'Ni': 3.0, 'O': 12.0}\",\"('Li', 'Ni', 'O', 'Si')\",OTHERS,False\nmp-672314,\"{'Mg': 12.0, 'In': 4.0}\",\"('In', 'Mg')\",OTHERS,False\nmp-1207310,\"{'Sm': 2.0, 'Cd': 1.0, 'Sb': 3.0}\",\"('Cd', 'Sb', 'Sm')\",OTHERS,False\nmp-643471,\"{'Ba': 2.0, 'Y': 1.0, 'Cu': 4.0, 'O': 6.0}\",\"('Ba', 'Cu', 'O', 'Y')\",OTHERS,False\nmvc-5821,\"{'Mn': 2.0, 'Zn': 4.0, 'Ir': 2.0, 'O': 12.0}\",\"('Ir', 'Mn', 'O', 'Zn')\",OTHERS,False\nmp-10379,\"{'Cu': 4.0, 'Ge': 2.0, 'Hf': 3.0}\",\"('Cu', 'Ge', 'Hf')\",OTHERS,False\nmp-16253,\"{'Si': 4.0, 'Ca': 4.0, 'Ba': 4.0}\",\"('Ba', 'Ca', 'Si')\",OTHERS,False\nmp-706664,\"{'B': 80.0, 'H': 104.0}\",\"('B', 'H')\",OTHERS,False\nmp-1211478,\"{'K': 2.0, 'Ho': 6.0, 'F': 20.0}\",\"('F', 'Ho', 'K')\",OTHERS,False\nmp-779241,\"{'Li': 2.0, 'Cu': 10.0, 'P': 4.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-1112629,\"{'Cs': 2.0, 'Al': 1.0, 'Hg': 1.0, 'Br': 6.0}\",\"('Al', 'Br', 'Cs', 'Hg')\",OTHERS,False\nmp-1183976,\"{'Cs': 1.0, 'Te': 1.0, 'O': 3.0}\",\"('Cs', 'O', 'Te')\",OTHERS,False\nmp-696275,\"{'Sn': 1.0, 'H': 8.0, 'N': 2.0, 'Cl': 6.0}\",\"('Cl', 'H', 'N', 'Sn')\",OTHERS,False\nCd 65 Mg 20 Yb 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Yb': 15.0}\",\"('Cd', 'Mg', 'Yb')\",QC,False\nmp-771195,\"{'Na': 10.0, 'Ni': 4.0, 'As': 2.0, 'C': 8.0, 'O': 32.0}\",\"('As', 'C', 'Na', 'Ni', 'O')\",OTHERS,False\nmp-697038,\"{'Ba': 2.0, 'H': 6.0, 'Ru': 1.0}\",\"('Ba', 'H', 'Ru')\",OTHERS,False\nmp-1221115,\"{'Na': 1.0, 'Cr': 12.0, 'Si': 8.0, 'Br': 1.0, 'O': 28.0}\",\"('Br', 'Cr', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1100459,\"{'Mg': 8.0, 'Si': 16.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1182139,\"{'Ba': 4.0, 'I': 8.0, 'O': 4.0}\",\"('Ba', 'I', 'O')\",OTHERS,False\nmp-1217550,\"{'Tb': 4.0, 'Nd': 4.0, 'Co': 56.0, 'B': 4.0}\",\"('B', 'Co', 'Nd', 'Tb')\",OTHERS,False\nmp-1100158,\"{'Ba': 1.0, 'Hf': 1.0, 'Mg': 6.0}\",\"('Ba', 'Hf', 'Mg')\",OTHERS,False\nmp-863292,\"{'Na': 6.0, 'V': 2.0, 'P': 4.0, 'O': 18.0}\",\"('Na', 'O', 'P', 'V')\",OTHERS,False\nmp-735553,\"{'V': 12.0, 'P': 8.0, 'H': 48.0, 'C': 12.0, 'N': 8.0, 'O': 60.0}\",\"('C', 'H', 'N', 'O', 'P', 'V')\",OTHERS,False\nmp-1175354,\"{'Li': 7.0, 'Mn': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1224321,\"{'Hf': 2.0, 'Al': 2.0, 'Zn': 2.0}\",\"('Al', 'Hf', 'Zn')\",OTHERS,False\nmp-892,\"{'Sc': 1.0, 'Pt': 1.0}\",\"('Pt', 'Sc')\",OTHERS,False\nmp-8958,\"{'F': 10.0, 'Rb': 2.0, 'Pd': 4.0}\",\"('F', 'Pd', 'Rb')\",OTHERS,False\nmp-754336,\"{'Li': 2.0, 'Mn': 1.0, 'Fe': 1.0, 'O': 4.0}\",\"('Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1101034,\"{'Ti': 1.0, 'H': 12.0, 'N': 3.0, 'F': 7.0}\",\"('F', 'H', 'N', 'Ti')\",OTHERS,False\nmp-1076939,\"{'Gd': 2.0, 'Mn': 4.0}\",\"('Gd', 'Mn')\",OTHERS,False\nmp-989626,\"{'La': 2.0, 'W': 2.0, 'N': 6.0}\",\"('La', 'N', 'W')\",OTHERS,False\nmp-1039741,\"{'Na': 1.0, 'Hf': 1.0, 'Mg': 30.0, 'O': 31.0}\",\"('Hf', 'Mg', 'Na', 'O')\",OTHERS,False\nmp-867872,\"{'Li': 1.0, 'Cd': 1.0, 'Ag': 2.0}\",\"('Ag', 'Cd', 'Li')\",OTHERS,False\nmp-20223,\"{'O': 16.0, 'Mn': 8.0, 'Ge': 4.0}\",\"('Ge', 'Mn', 'O')\",OTHERS,False\nmvc-7973,\"{'Ca': 4.0, 'Mn': 4.0, 'As': 8.0, 'O': 28.0}\",\"('As', 'Ca', 'Mn', 'O')\",OTHERS,False\nmp-31387,\"{'Ga': 4.0, 'Pd': 4.0, 'Er': 4.0}\",\"('Er', 'Ga', 'Pd')\",OTHERS,False\nmp-1076601,\"{'Sr': 20.0, 'Ca': 12.0, 'Mn': 24.0, 'Fe': 8.0, 'O': 80.0}\",\"('Ca', 'Fe', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1199267,\"{'Tb': 8.0, 'Fe': 8.0, 'Sb': 24.0}\",\"('Fe', 'Sb', 'Tb')\",OTHERS,False\nmp-555030,\"{'Na': 4.0, 'Y': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Na', 'O', 'P', 'Y')\",OTHERS,False\nmp-1174529,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1178335,\"{'Ga': 2.0, 'Pt': 2.0, 'O': 4.0}\",\"('Ga', 'O', 'Pt')\",OTHERS,False\nmp-1070573,\"{'La': 1.0, 'Al': 3.0, 'Cu': 1.0}\",\"('Al', 'Cu', 'La')\",OTHERS,False\nmp-1111664,\"{'K': 2.0, 'Li': 1.0, 'Sb': 1.0, 'Cl': 6.0}\",\"('Cl', 'K', 'Li', 'Sb')\",OTHERS,False\nmp-779330,\"{'Li': 8.0, 'Mn': 4.0, 'H': 32.0, 'S': 8.0, 'O': 48.0}\",\"('H', 'Li', 'Mn', 'O', 'S')\",OTHERS,False\nmp-1073003,\"{'Mg': 8.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-31285,\"{'Se': 32.0, 'Pd': 4.0, 'Cs': 8.0}\",\"('Cs', 'Pd', 'Se')\",OTHERS,False\nmp-862791,\"{'Ga': 1.0, 'Cu': 1.0, 'Pt': 2.0}\",\"('Cu', 'Ga', 'Pt')\",OTHERS,False\nmp-1017519,\"{'Ir': 1.0, 'C': 1.0}\",\"('C', 'Ir')\",OTHERS,False\nmp-1220361,\"{'Nb': 1.0, 'O': 3.0}\",\"('Nb', 'O')\",OTHERS,False\nmp-707483,\"{'Ti': 4.0, 'P': 8.0, 'H': 16.0, 'O': 36.0}\",\"('H', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1179847,\"{'Pt': 4.0, 'N': 8.0, 'Cl': 8.0}\",\"('Cl', 'N', 'Pt')\",OTHERS,False\nmp-771773,\"{'Na': 4.0, 'Bi': 2.0, 'B': 2.0, 'P': 2.0, 'O': 14.0}\",\"('B', 'Bi', 'Na', 'O', 'P')\",OTHERS,False\nmp-757324,\"{'Ce': 2.0, 'Zr': 12.0, 'O': 28.0}\",\"('Ce', 'O', 'Zr')\",OTHERS,False\nmp-23893,\"{'H': 20.0, 'N': 4.0, 'O': 4.0, 'Br': 4.0}\",\"('Br', 'H', 'N', 'O')\",OTHERS,False\nmp-942702,\"{'Li': 2.0, 'Mn': 2.0, 'S': 2.0, 'O': 8.0, 'F': 2.0}\",\"('F', 'Li', 'Mn', 'O', 'S')\",OTHERS,False\nmp-605196,\"{'Cs': 2.0, 'Cu': 6.0, 'As': 16.0, 'H': 48.0, 'C': 16.0, 'I': 8.0, 'O': 16.0}\",\"('As', 'C', 'Cs', 'Cu', 'H', 'I', 'O')\",OTHERS,False\nmp-1062228,\"{'Ca': 1.0, 'O': 2.0}\",\"('Ca', 'O')\",OTHERS,False\nmp-1213281,\"{'Eu': 8.0, 'Mo': 4.0, 'O': 24.0}\",\"('Eu', 'Mo', 'O')\",OTHERS,False\nmp-770630,\"{'Rb': 2.0, 'Li': 4.0, 'Cr': 4.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Cr', 'Li', 'O', 'Rb')\",OTHERS,False\nmp-1208725,\"{'Sr': 3.0, 'Fe': 2.0, 'Ag': 2.0, 'S': 2.0, 'O': 5.0}\",\"('Ag', 'Fe', 'O', 'S', 'Sr')\",OTHERS,False\nmp-1147772,\"{'Ba': 2.0, 'Na': 2.0, 'Cu': 2.0, 'Br': 2.0, 'O': 4.0}\",\"('Ba', 'Br', 'Cu', 'Na', 'O')\",OTHERS,False\nmp-1206431,\"{'In': 2.0, 'Au': 3.0}\",\"('Au', 'In')\",OTHERS,False\nmp-1196267,\"{'Be': 4.0, 'Al': 4.0, 'Si': 4.0, 'O': 20.0}\",\"('Al', 'Be', 'O', 'Si')\",OTHERS,False\nmp-1095714,\"{'La': 1.0, 'Sb': 1.0, 'Pd': 2.0}\",\"('La', 'Pd', 'Sb')\",OTHERS,False\nmp-542664,\"{'Ce': 8.0, 'Se': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Ce', 'O', 'Se', 'Si')\",OTHERS,False\nmp-1248251,\"{'Al': 4.0, 'V': 4.0, 'O': 12.0}\",\"('Al', 'O', 'V')\",OTHERS,False\nmp-1209733,\"{'Sm': 2.0, 'Zr': 12.0, 'P': 18.0, 'O': 72.0}\",\"('O', 'P', 'Sm', 'Zr')\",OTHERS,False\nmp-687239,\"{'K': 10.0, 'Y': 2.0, 'Ni': 4.0, 'N': 24.0, 'O': 48.0}\",\"('K', 'N', 'Ni', 'O', 'Y')\",OTHERS,False\nmp-1199878,\"{'Ba': 4.0, 'U': 8.0, 'S': 20.0}\",\"('Ba', 'S', 'U')\",OTHERS,False\nmp-865014,\"{'Mg': 4.0, 'Cu': 2.0}\",\"('Cu', 'Mg')\",OTHERS,False\nmp-1245839,\"{'Sr': 6.0, 'Ni': 6.0, 'N': 10.0}\",\"('N', 'Ni', 'Sr')\",OTHERS,False\nmp-1174374,\"{'Li': 7.0, 'Co': 5.0, 'O': 12.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1181299,\"{'Mg': 2.0, 'U': 2.0, 'S': 4.0, 'O': 42.0}\",\"('Mg', 'O', 'S', 'U')\",OTHERS,False\nmp-21048,\"{'P': 4.0, 'Cr': 4.0}\",\"('Cr', 'P')\",OTHERS,False\nmp-1076487,\"{'Sr': 28.0, 'Ca': 4.0, 'Mn': 4.0, 'Fe': 28.0, 'O': 80.0}\",\"('Ca', 'Fe', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1095465,\"{'Y': 4.0, 'Ge': 4.0, 'Rh': 4.0}\",\"('Ge', 'Rh', 'Y')\",OTHERS,False\nmp-30432,\"{'Rh': 6.0, 'Ba': 2.0, 'Pb': 12.0}\",\"('Ba', 'Pb', 'Rh')\",OTHERS,False\nmp-561248,\"{'Sm': 8.0, 'Cu': 8.0, 'Te': 8.0, 'S': 8.0}\",\"('Cu', 'S', 'Sm', 'Te')\",OTHERS,False\nmp-35612,\"{'F': 1.0, 'O': 1.0, 'Pu': 1.0}\",\"('F', 'O', 'Pu')\",OTHERS,False\nmp-1214392,\"{'Ca': 3.0, 'S': 6.0, 'O': 30.0}\",\"('Ca', 'O', 'S')\",OTHERS,False\nmp-978270,\"{'Mg': 2.0, 'Zr': 6.0}\",\"('Mg', 'Zr')\",OTHERS,False\nmp-1192374,\"{'K': 4.0, 'Ge': 12.0, 'As': 12.0}\",\"('As', 'Ge', 'K')\",OTHERS,False\nmp-764985,\"{'Li': 8.0, 'Fe': 3.0, 'Co': 7.0, 'O': 20.0}\",\"('Co', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1223490,\"{'K': 4.0, 'C': 4.0, 'N': 4.0}\",\"('C', 'K', 'N')\",OTHERS,False\nmp-18673,\"{'O': 16.0, 'P': 4.0, 'Zn': 4.0, 'Cs': 4.0}\",\"('Cs', 'O', 'P', 'Zn')\",OTHERS,False\nmp-1185331,\"{'Li': 1.0, 'Dy': 2.0, 'Rh': 1.0}\",\"('Dy', 'Li', 'Rh')\",OTHERS,False\nmp-1208793,\"{'Sm': 1.0, 'Mg': 5.0, 'Sb': 4.0}\",\"('Mg', 'Sb', 'Sm')\",OTHERS,False\nmp-866536,\"{'Eu': 2.0, 'Na': 1.0, 'Sn': 1.0}\",\"('Eu', 'Na', 'Sn')\",OTHERS,False\nmp-753609,\"{'Li': 2.0, 'Mn': 1.0, 'P': 2.0, 'O': 8.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1247106,\"{'Mn': 4.0, 'Sn': 4.0, 'N': 8.0}\",\"('Mn', 'N', 'Sn')\",OTHERS,False\nmp-1078472,\"{'Ti': 2.0, 'Cu': 2.0, 'Ge': 2.0, 'As': 2.0}\",\"('As', 'Cu', 'Ge', 'Ti')\",OTHERS,False\nmp-1225239,\"{'Fe': 3.0, 'Ge': 2.0}\",\"('Fe', 'Ge')\",OTHERS,False\nmp-1232202,\"{'Ce': 16.0, 'Mg': 8.0, 'S': 32.0}\",\"('Ce', 'Mg', 'S')\",OTHERS,False\nmp-560929,\"{'F': 12.0, 'Na': 6.0, 'Cr': 2.0}\",\"('Cr', 'F', 'Na')\",OTHERS,False\nmp-16623,\"{'Al': 14.0, 'Dy': 2.0, 'Au': 6.0}\",\"('Al', 'Au', 'Dy')\",OTHERS,False\nmp-685124,\"{'Ni': 19.0, 'Se': 20.0}\",\"('Ni', 'Se')\",OTHERS,False\nZn 64 Mg 25 Y 11,\"{'Zn': 64.0, 'Mg': 25.0, 'Y': 11.0}\",\"('Mg', 'Y', 'Zn')\",QC,False\nmvc-5154,\"{'Ca': 4.0, 'Al': 2.0, 'Ag': 2.0, 'O': 10.0}\",\"('Ag', 'Al', 'Ca', 'O')\",OTHERS,False\nmp-1174756,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmvc-2876,\"{'Zn': 1.0, 'Sb': 4.0, 'O': 8.0}\",\"('O', 'Sb', 'Zn')\",OTHERS,False\nmp-7359,\"{'As': 2.0, 'Ag': 2.0, 'Ba': 2.0}\",\"('Ag', 'As', 'Ba')\",OTHERS,False\nmp-1075486,\"{'Mg': 10.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1370,\"{'Si': 32.0, 'Cs': 32.0}\",\"('Cs', 'Si')\",OTHERS,False\nmp-36733,\"{'Cd': 2.0, 'La': 4.0, 'Se': 8.0}\",\"('Cd', 'La', 'Se')\",OTHERS,False\nmp-559434,\"{'Tb': 4.0, 'B': 12.0, 'O': 24.0}\",\"('B', 'O', 'Tb')\",OTHERS,False\nmvc-8440,\"{'Mg': 4.0, 'Ti': 4.0, 'Si': 16.0, 'O': 40.0}\",\"('Mg', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-989584,\"{'Ca': 6.0, 'Sn': 2.0, 'N': 1.0, 'O': 1.0}\",\"('Ca', 'N', 'O', 'Sn')\",OTHERS,False\nmp-6531,\"{'O': 48.0, 'S': 12.0, 'K': 8.0, 'Mn': 8.0}\",\"('K', 'Mn', 'O', 'S')\",OTHERS,False\nmp-1216268,\"{'Y': 9.0, 'Lu': 3.0, 'Al': 20.0, 'O': 48.0}\",\"('Al', 'Lu', 'O', 'Y')\",OTHERS,False\nmp-759604,\"{'Mn': 12.0, 'O': 4.0, 'F': 32.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-862332,\"{'La': 2.0, 'Hg': 6.0}\",\"('Hg', 'La')\",OTHERS,False\nmp-1212221,\"{'Ho': 10.0, 'Bi': 2.0, 'Pd': 4.0}\",\"('Bi', 'Ho', 'Pd')\",OTHERS,False\nmp-975322,\"{'Rb': 1.0, 'Fe': 1.0, 'O': 3.0}\",\"('Fe', 'O', 'Rb')\",OTHERS,False\nmp-1225359,\"{'Fe': 4.0, 'Cu': 8.0, 'B': 4.0, 'O': 20.0}\",\"('B', 'Cu', 'Fe', 'O')\",OTHERS,False\nmp-568746,\"{'Bi': 4.0, 'Pd': 2.0}\",\"('Bi', 'Pd')\",OTHERS,False\nmp-758740,\"{'Li': 2.0, 'Fe': 8.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1025296,\"{'Sn': 1.0, 'P': 1.0, 'Pd': 5.0}\",\"('P', 'Pd', 'Sn')\",OTHERS,False\nmp-1177021,\"{'Li': 12.0, 'Mn': 2.0, 'V': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1202959,\"{'Zn': 18.0, 'S': 18.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-3742,\"{'O': 38.0, 'Fe': 24.0, 'Sr': 2.0}\",\"('Fe', 'O', 'Sr')\",OTHERS,False\nmp-600167,\"{'Cu': 4.0, 'H': 24.0, 'C': 16.0, 'O': 32.0}\",\"('C', 'Cu', 'H', 'O')\",OTHERS,False\nmp-1211979,\"{'K': 4.0, 'Nb': 12.0, 'Cu': 4.0, 'O': 36.0}\",\"('Cu', 'K', 'Nb', 'O')\",OTHERS,False\nmp-1025470,\"{'Lu': 2.0, 'Te': 6.0}\",\"('Lu', 'Te')\",OTHERS,False\nmp-622171,\"{'V': 4.0, 'Sb': 8.0, 'O': 20.0}\",\"('O', 'Sb', 'V')\",OTHERS,False\nmp-1180870,\"{'K': 6.0, 'Na': 2.0, 'Cr': 4.0, 'O': 16.0}\",\"('Cr', 'K', 'Na', 'O')\",OTHERS,False\nmp-25393,\"{'Li': 4.0, 'O': 8.0, 'F': 2.0, 'P': 2.0, 'Fe': 2.0}\",\"('F', 'Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1220523,\"{'Nb': 12.0, 'Zn': 4.0, 'Au': 4.0}\",\"('Au', 'Nb', 'Zn')\",OTHERS,False\nmp-1102657,\"{'Y': 8.0, 'Pt': 4.0}\",\"('Pt', 'Y')\",OTHERS,False\nmp-1223480,\"{'K': 1.0, 'Nd': 9.0, 'Si': 6.0, 'O': 26.0}\",\"('K', 'Nd', 'O', 'Si')\",OTHERS,False\nmp-915,\"{'Y': 1.0, 'Cd': 1.0}\",\"('Cd', 'Y')\",OTHERS,False\nmp-643367,\"{'Y': 2.0, 'C': 2.0, 'Br': 2.0}\",\"('Br', 'C', 'Y')\",OTHERS,False\nmp-865353,\"{'Tm': 2.0, 'I': 6.0}\",\"('I', 'Tm')\",OTHERS,False\nmp-23453,\"{'Br': 28.0, 'Sb': 20.0, 'Hg': 24.0}\",\"('Br', 'Hg', 'Sb')\",OTHERS,False\nmp-1113725,\"{'Rb': 2.0, 'Er': 1.0, 'Ag': 1.0, 'Cl': 6.0}\",\"('Ag', 'Cl', 'Er', 'Rb')\",OTHERS,False\nmp-1112106,\"{'Cs': 2.0, 'Y': 1.0, 'Tl': 1.0, 'Br': 6.0}\",\"('Br', 'Cs', 'Tl', 'Y')\",OTHERS,False\nmp-997589,\"{'La': 8.0, 'Al': 7.0, 'In': 1.0, 'O': 24.0}\",\"('Al', 'In', 'La', 'O')\",OTHERS,False\nmp-1097494,\"{'Mg': 1.0, 'Pd': 2.0, 'Pb': 1.0}\",\"('Mg', 'Pb', 'Pd')\",OTHERS,False\nmp-27722,\"{'N': 8.0, 'S': 24.0, 'Pd': 4.0}\",\"('N', 'Pd', 'S')\",OTHERS,False\nmp-1212103,\"{'K': 8.0, 'Fe': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'K', 'O', 'P')\",OTHERS,False\nmp-773014,\"{'Mn': 3.0, 'S': 6.0, 'O': 24.0}\",\"('Mn', 'O', 'S')\",OTHERS,False\nmp-626547,\"{'Ti': 6.0, 'H': 4.0, 'O': 14.0}\",\"('H', 'O', 'Ti')\",OTHERS,False\nmp-1205255,\"{'U': 4.0, 'N': 4.0, 'O': 32.0}\",\"('N', 'O', 'U')\",OTHERS,False\nmp-1073904,\"{'Mg': 12.0, 'Si': 10.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-11654,\"{'B': 3.0, 'O': 12.0, 'As': 3.0}\",\"('As', 'B', 'O')\",OTHERS,False\nmp-1228556,\"{'Al': 6.0, 'Cu': 2.0, 'B': 4.0, 'O': 17.0}\",\"('Al', 'B', 'Cu', 'O')\",OTHERS,False\nmp-1029282,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-4136,\"{'O': 16.0, 'P': 4.0, 'Ce': 4.0}\",\"('Ce', 'O', 'P')\",OTHERS,False\nmp-1172967,\"{'Li': 2.0, 'Ni': 4.0, 'O': 8.0}\",\"('Li', 'Ni', 'O')\",OTHERS,False\nmp-1222642,\"{'Li': 2.0, 'Ti': 3.0, 'Zn': 1.0, 'O': 8.0}\",\"('Li', 'O', 'Ti', 'Zn')\",OTHERS,False\nmp-1203386,\"{'K': 8.0, 'H': 12.0, 'Ir': 4.0, 'N': 4.0, 'Cl': 20.0}\",\"('Cl', 'H', 'Ir', 'K', 'N')\",OTHERS,False\nmp-556059,\"{'K': 4.0, 'Ni': 2.0, 'N': 8.0, 'O': 24.0}\",\"('K', 'N', 'Ni', 'O')\",OTHERS,False\nmp-774245,\"{'Li': 5.0, 'Mn': 5.0, 'Ni': 2.0, 'O': 12.0}\",\"('Li', 'Mn', 'Ni', 'O')\",OTHERS,False\nmp-10906,\"{'Al': 2.0, 'Zr': 2.0, 'Pt': 4.0}\",\"('Al', 'Pt', 'Zr')\",OTHERS,False\nmp-685418,\"{'Fe': 16.0, 'Cu': 8.0, 'O': 32.0}\",\"('Cu', 'Fe', 'O')\",OTHERS,False\nmvc-5883,\"{'Ca': 2.0, 'Cu': 4.0, 'O': 8.0}\",\"('Ca', 'Cu', 'O')\",OTHERS,False\nmp-757238,\"{'Gd': 2.0, 'As': 2.0, 'O': 8.0}\",\"('As', 'Gd', 'O')\",OTHERS,False\nmp-1175769,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1195843,\"{'Fe': 4.0, 'H': 32.0, 'S': 4.0, 'O': 32.0}\",\"('Fe', 'H', 'O', 'S')\",OTHERS,False\nmp-1038234,\"{'K': 1.0, 'Mg': 30.0, 'Al': 1.0, 'O': 32.0}\",\"('Al', 'K', 'Mg', 'O')\",OTHERS,False\nmp-862960,\"{'Pm': 1.0, 'Sn': 3.0}\",\"('Pm', 'Sn')\",OTHERS,False\nmp-763524,\"{'Li': 1.0, 'Fe': 2.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1217676,\"{'Tb': 24.0, 'Se': 45.0}\",\"('Se', 'Tb')\",OTHERS,False\nmp-1228524,\"{'Al': 4.0, 'Te': 6.0}\",\"('Al', 'Te')\",OTHERS,False\nmp-3390,\"{'Si': 2.0, 'Cu': 2.0, 'Y': 1.0}\",\"('Cu', 'Si', 'Y')\",OTHERS,False\nmp-1225279,\"{'Dy': 1.0, 'Cu': 1.0, 'Ge': 1.0}\",\"('Cu', 'Dy', 'Ge')\",OTHERS,False\nmp-998421,\"{'K': 2.0, 'Ca': 2.0, 'Cl': 6.0}\",\"('Ca', 'Cl', 'K')\",OTHERS,False\nmp-12075,\"{'B': 2.0, 'Fe': 2.0, 'Tb': 1.0}\",\"('B', 'Fe', 'Tb')\",OTHERS,False\nmp-1185183,\"{'La': 1.0, 'Ce': 1.0, 'Hg': 2.0}\",\"('Ce', 'Hg', 'La')\",OTHERS,False\nmp-1247638,\"{'Sr': 4.0, 'Ca': 28.0, 'Mn': 32.0, 'O': 96.0}\",\"('Ca', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1197458,\"{'K': 8.0, 'Th': 2.0, 'C': 16.0, 'O': 40.0}\",\"('C', 'K', 'O', 'Th')\",OTHERS,False\nmp-1178447,\"{'Fe': 8.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1175152,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1194972,\"{'S': 8.0, 'Xe': 4.0, 'O': 24.0, 'F': 8.0}\",\"('F', 'O', 'S', 'Xe')\",OTHERS,False\nmp-562263,\"{'Cs': 8.0, 'Pb': 4.0, 'O': 8.0}\",\"('Cs', 'O', 'Pb')\",OTHERS,False\nmp-531661,\"{'Nd': 10.0, 'O': 39.0, 'Ti': 12.0}\",\"('Nd', 'O', 'Ti')\",OTHERS,False\nmp-1223123,\"{'Li': 2.0, 'Ta': 2.0, 'W': 2.0, 'O': 13.0}\",\"('Li', 'O', 'Ta', 'W')\",OTHERS,False\nmp-1222841,\"{'La': 3.0, 'Si': 3.0, 'B': 3.0, 'O': 15.0}\",\"('B', 'La', 'O', 'Si')\",OTHERS,False\nmp-1192792,\"{'Sr': 4.0, 'Ru': 4.0, 'O': 12.0}\",\"('O', 'Ru', 'Sr')\",OTHERS,False\nmp-1221033,\"{'Na': 1.0, 'Sr': 12.0, 'Ni': 7.0, 'O': 23.0}\",\"('Na', 'Ni', 'O', 'Sr')\",OTHERS,False\nmp-3682,\"{'F': 6.0, 'K': 2.0, 'Cu': 2.0}\",\"('Cu', 'F', 'K')\",OTHERS,False\nmp-15994,\"{'O': 48.0, 'P': 16.0, 'Hg': 8.0}\",\"('Hg', 'O', 'P')\",OTHERS,False\nmp-1106129,\"{'Bi': 4.0, 'Te': 2.0, 'Br': 2.0, 'O': 9.0}\",\"('Bi', 'Br', 'O', 'Te')\",OTHERS,False\nmp-1187893,\"{'Y': 1.0, 'Np': 3.0}\",\"('Np', 'Y')\",OTHERS,False\nmp-867159,\"{'Sm': 1.0, 'Dy': 1.0, 'Mg': 2.0}\",\"('Dy', 'Mg', 'Sm')\",OTHERS,False\nmp-768959,\"{'Na': 8.0, 'Sb': 4.0, 'C': 8.0, 'S': 2.0, 'O': 32.0}\",\"('C', 'Na', 'O', 'S', 'Sb')\",OTHERS,False\nmp-759658,\"{'Li': 4.0, 'Ag': 4.0, 'F': 8.0}\",\"('Ag', 'F', 'Li')\",OTHERS,False\nmp-1196928,\"{'Mg': 2.0, 'Zr': 2.0, 'P': 4.0, 'H': 16.0, 'O': 24.0}\",\"('H', 'Mg', 'O', 'P', 'Zr')\",OTHERS,False\nmp-1201244,\"{'Rb': 12.0, 'Ir': 4.0, 'Br': 24.0, 'O': 4.0}\",\"('Br', 'Ir', 'O', 'Rb')\",OTHERS,False\nmp-1183984,\"{'Cu': 3.0, 'Te': 1.0}\",\"('Cu', 'Te')\",OTHERS,False\nmp-1186207,\"{'Nb': 2.0, 'Re': 1.0, 'Ru': 1.0}\",\"('Nb', 'Re', 'Ru')\",OTHERS,False\nmp-1195614,\"{'La': 4.0, 'Tl': 4.0, 'P': 8.0, 'S': 24.0}\",\"('La', 'P', 'S', 'Tl')\",OTHERS,False\nmp-1174064,\"{'Li': 6.0, 'Mn': 2.0, 'Co': 2.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-510377,\"{'B': 1.0, 'Eu': 1.0, 'Rh': 3.0}\",\"('B', 'Eu', 'Rh')\",OTHERS,False\nmp-570506,\"{'Zr': 4.0, 'I': 8.0}\",\"('I', 'Zr')\",OTHERS,False\nmp-1191016,\"{'Tm': 6.0, 'B': 14.0, 'W': 2.0}\",\"('B', 'Tm', 'W')\",OTHERS,False\nmp-756977,\"{'Ni': 1.0, 'H': 12.0, 'S': 1.0, 'O': 9.0}\",\"('H', 'Ni', 'O', 'S')\",OTHERS,False\nmp-1202032,\"{'Fe': 4.0, 'Sn': 4.0, 'O': 24.0}\",\"('Fe', 'O', 'Sn')\",OTHERS,False\nmp-1039058,\"{'Mg': 4.0, 'Bi': 8.0}\",\"('Bi', 'Mg')\",OTHERS,False\nmp-1072824,\"{'Dy': 2.0, 'Cu': 2.0, 'Sn': 2.0}\",\"('Cu', 'Dy', 'Sn')\",OTHERS,False\nmp-1246430,\"{'Zn': 6.0, 'Mo': 2.0, 'N': 8.0}\",\"('Mo', 'N', 'Zn')\",OTHERS,False\nmp-1203025,\"{'Np': 16.0, 'N': 24.0}\",\"('N', 'Np')\",OTHERS,False\nmp-12990,\"{'C': 2.0, 'Al': 2.0, 'Ti': 4.0}\",\"('Al', 'C', 'Ti')\",OTHERS,False\nmp-1220641,\"{'Nb': 3.0, 'B': 4.0, 'W': 3.0}\",\"('B', 'Nb', 'W')\",OTHERS,False\nmp-554497,\"{'Cu': 1.0, 'Sb': 2.0, 'Xe': 4.0, 'F': 20.0}\",\"('Cu', 'F', 'Sb', 'Xe')\",OTHERS,False\nmp-1024954,\"{'Ho': 2.0, 'Cu': 2.0, 'Sn': 2.0}\",\"('Cu', 'Ho', 'Sn')\",OTHERS,False\nmp-1232305,\"{'Y': 4.0, 'Mg': 4.0, 'Se': 12.0}\",\"('Mg', 'Se', 'Y')\",OTHERS,False\nmp-29815,\"{'As': 16.0, 'La': 8.0}\",\"('As', 'La')\",OTHERS,False\nmp-850399,\"{'Li': 2.0, 'V': 2.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('H', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1103416,\"{'Na': 2.0, 'B': 2.0, 'H': 8.0}\",\"('B', 'H', 'Na')\",OTHERS,False\nmp-1175120,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1219621,\"{'Rb': 1.0, 'Cu': 2.0, 'H': 3.0, 'S': 2.0, 'O': 10.0}\",\"('Cu', 'H', 'O', 'Rb', 'S')\",OTHERS,False\nmp-1080109,\"{'Cu': 4.0, 'S': 3.0, 'N': 1.0}\",\"('Cu', 'N', 'S')\",OTHERS,False\nmp-1197395,\"{'K': 4.0, 'Mn': 6.0, 'H': 12.0, 'S': 6.0, 'O': 32.0}\",\"('H', 'K', 'Mn', 'O', 'S')\",OTHERS,False\nmp-1073181,\"{'Mg': 8.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1187060,\"{'Th': 6.0, 'V': 2.0}\",\"('Th', 'V')\",OTHERS,False\nmp-1178327,\"{'Fe': 8.0, 'O': 14.0, 'F': 2.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-756365,\"{'Ca': 4.0, 'Ce': 4.0, 'O': 12.0}\",\"('Ca', 'Ce', 'O')\",OTHERS,False\nmp-1187802,\"{'Y': 6.0, 'Ge': 2.0}\",\"('Ge', 'Y')\",OTHERS,False\nmvc-9587,\"{'Ca': 2.0, 'Bi': 4.0, 'O': 8.0}\",\"('Bi', 'Ca', 'O')\",OTHERS,False\nmp-1037923,\"{'Mg': 30.0, 'Mn': 1.0, 'Fe': 1.0, 'O': 32.0}\",\"('Fe', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-1099625,\"{'Sm': 4.0, 'Ni': 4.0, 'O': 10.0}\",\"('Ni', 'O', 'Sm')\",OTHERS,False\nmp-572159,\"{'K': 2.0, 'Fe': 2.0, 'C': 12.0, 'N': 6.0, 'O': 6.0}\",\"('C', 'Fe', 'K', 'N', 'O')\",OTHERS,False\nmp-1178781,\"{'Zn': 4.0, 'P': 6.0, 'O': 32.0}\",\"('O', 'P', 'Zn')\",OTHERS,False\nmp-1101036,\"{'Tl': 90.0, 'Sb': 10.0, 'Te': 60.0}\",\"('Sb', 'Te', 'Tl')\",OTHERS,False\nmp-1113520,\"{'Cs': 2.0, 'Sc': 1.0, 'In': 1.0, 'Br': 6.0}\",\"('Br', 'Cs', 'In', 'Sc')\",OTHERS,False\nmp-672244,\"{'Gd': 1.0, 'Al': 4.0, 'Ge': 2.0, 'Au': 1.0}\",\"('Al', 'Au', 'Gd', 'Ge')\",OTHERS,False\nmp-865562,\"{'Be': 3.0, 'Ru': 1.0}\",\"('Be', 'Ru')\",OTHERS,False\nmp-22541,\"{'Mn': 1.0, 'Ni': 1.0, 'Sb': 1.0}\",\"('Mn', 'Ni', 'Sb')\",OTHERS,False\nmp-1179643,{'S': 4.0},\"('S',)\",OTHERS,False\nZn 77 Mg 17.5 Ti 5.5,\"{'Zn': 77.0, 'Mg': 17.5, 'Ti': 5.5}\",\"('Mg', 'Ti', 'Zn')\",AC,False\nmp-685931,\"{'Ba': 20.0, 'Nb': 19.0, 'Se': 60.0}\",\"('Ba', 'Nb', 'Se')\",OTHERS,False\nmp-1194498,\"{'Ba': 2.0, 'Fe': 6.0, 'P': 6.0, 'O': 24.0}\",\"('Ba', 'Fe', 'O', 'P')\",OTHERS,False\nmp-1101339,\"{'Tb': 2.0, 'Ga': 2.0, 'O': 6.0}\",\"('Ga', 'O', 'Tb')\",OTHERS,False\nmp-1073623,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-530399,\"{'Al': 20.0, 'Li': 4.0, 'O': 32.0}\",\"('Al', 'Li', 'O')\",OTHERS,False\nmp-1216133,\"{'Yb': 4.0, 'Zr': 1.0, 'Co': 33.0}\",\"('Co', 'Yb', 'Zr')\",OTHERS,False\nmp-1187680,\"{'Yb': 2.0, 'Nb': 6.0}\",\"('Nb', 'Yb')\",OTHERS,False\nmp-1246820,\"{'Re': 2.0, 'Te': 2.0, 'N': 2.0}\",\"('N', 'Re', 'Te')\",OTHERS,False\nmp-12337,\"{'O': 12.0, 'Na': 2.0, 'La': 4.0, 'Os': 2.0}\",\"('La', 'Na', 'O', 'Os')\",OTHERS,False\nmp-1224966,\"{'Fe': 1.0, 'Co': 1.0, 'Se': 2.0}\",\"('Co', 'Fe', 'Se')\",OTHERS,False\nmp-1198056,\"{'Na': 8.0, 'Al': 8.0, 'Si': 8.0, 'O': 32.0}\",\"('Al', 'Na', 'O', 'Si')\",OTHERS,False\nmvc-10213,\"{'Zn': 6.0, 'Co': 12.0, 'O': 24.0}\",\"('Co', 'O', 'Zn')\",OTHERS,False\nmp-20257,\"{'As': 2.0, 'Pd': 6.0, 'Pb': 4.0}\",\"('As', 'Pb', 'Pd')\",OTHERS,False\nmp-1219023,\"{'Sm': 1.0, 'Ga': 3.0, 'Ni': 1.0}\",\"('Ga', 'Ni', 'Sm')\",OTHERS,False\nmvc-9088,\"{'Zn': 2.0, 'Ni': 4.0, 'P': 4.0, 'O': 20.0}\",\"('Ni', 'O', 'P', 'Zn')\",OTHERS,False\nmp-778187,\"{'Li': 8.0, 'Co': 6.0, 'P': 8.0, 'H': 36.0, 'O': 48.0}\",\"('Co', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-567199,\"{'Pb': 5.0, 'I': 10.0}\",\"('I', 'Pb')\",OTHERS,False\nmp-555101,\"{'K': 3.0, 'Co': 2.0, 'F': 7.0}\",\"('Co', 'F', 'K')\",OTHERS,False\nmp-1028769,\"{'W': 4.0, 'Se': 6.0, 'S': 2.0}\",\"('S', 'Se', 'W')\",OTHERS,False\nmp-1028795,\"{'Te': 2.0, 'Mo': 1.0, 'W': 3.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1214583,\"{'Ba': 2.0, 'Y': 1.0, 'Cu': 2.0, 'Hg': 1.0, 'O': 7.0}\",\"('Ba', 'Cu', 'Hg', 'O', 'Y')\",OTHERS,False\nmp-1190719,\"{'Bi': 16.0, 'Mo': 6.0}\",\"('Bi', 'Mo')\",OTHERS,False\nmp-677627,\"{'Li': 12.0, 'Nd': 12.0, 'Te': 8.0, 'O': 48.0}\",\"('Li', 'Nd', 'O', 'Te')\",OTHERS,False\nmp-755418,\"{'Li': 4.0, 'Mn': 3.0, 'Nb': 3.0, 'Sb': 2.0, 'O': 16.0}\",\"('Li', 'Mn', 'Nb', 'O', 'Sb')\",OTHERS,False\nmp-1099747,\"{'Eu': 4.0, 'Mn': 4.0, 'O': 10.0}\",\"('Eu', 'Mn', 'O')\",OTHERS,False\nmp-754393,\"{'Li': 5.0, 'Mn': 7.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-3526,\"{'In': 3.0, 'Er': 3.0, 'Pt': 3.0}\",\"('Er', 'In', 'Pt')\",OTHERS,False\nmp-9939,\"{'Ge': 2.0, 'Hf': 4.0}\",\"('Ge', 'Hf')\",OTHERS,False\nmp-705147,\"{'Fe': 8.0, 'Ge': 4.0, 'Se': 16.0}\",\"('Fe', 'Ge', 'Se')\",OTHERS,False\nmp-24390,\"{'H': 4.0, 'O': 16.0, 'P': 4.0, 'Ca': 4.0}\",\"('Ca', 'H', 'O', 'P')\",OTHERS,False\nmp-555271,\"{'Ba': 4.0, 'Zn': 4.0, 'Cl': 2.0, 'F': 14.0}\",\"('Ba', 'Cl', 'F', 'Zn')\",OTHERS,False\nmp-1215723,\"{'Zr': 1.0, 'Al': 6.0, 'Fe': 6.0}\",\"('Al', 'Fe', 'Zr')\",OTHERS,False\nmp-867677,\"{'Li': 4.0, 'Ag': 4.0, 'F': 24.0}\",\"('Ag', 'F', 'Li')\",OTHERS,False\nmp-765480,\"{'Li': 4.0, 'V': 4.0, 'F': 20.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-558298,\"{'Zn': 3.0, 'Te': 1.0, 'As': 2.0, 'Pb': 3.0, 'O': 14.0}\",\"('As', 'O', 'Pb', 'Te', 'Zn')\",OTHERS,False\nmp-1190355,\"{'Li': 2.0, 'Al': 2.0, 'Si': 4.0, 'O': 14.0}\",\"('Al', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1213036,\"{'Er': 3.0, 'Ga': 9.0, 'Os': 3.0}\",\"('Er', 'Ga', 'Os')\",OTHERS,False\nCd 6 Ca 1,\"{'Cd': 6.0, 'Ca': 1.0}\",\"('Ca', 'Cd')\",AC,False\nmp-1192146,\"{'Nb': 4.0, 'Te': 16.0, 'Os': 4.0}\",\"('Nb', 'Os', 'Te')\",OTHERS,False\nmp-213,\"{'Ca': 1.0, 'Pd': 1.0}\",\"('Ca', 'Pd')\",OTHERS,False\nmp-570293,\"{'Nb': 10.0, 'Ga': 6.0}\",\"('Ga', 'Nb')\",OTHERS,False\nmp-972285,\"{'Sr': 3.0, 'Li': 1.0}\",\"('Li', 'Sr')\",OTHERS,False\nmp-21309,\"{'O': 6.0, 'Mg': 1.0, 'Te': 1.0, 'Pb': 2.0}\",\"('Mg', 'O', 'Pb', 'Te')\",OTHERS,False\nmp-1195937,\"{'Na': 8.0, 'Be': 8.0, 'Si': 24.0, 'O': 64.0}\",\"('Be', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1194721,\"{'Sc': 6.0, 'Mn': 6.0, 'Al': 14.0, 'Si': 10.0}\",\"('Al', 'Mn', 'Sc', 'Si')\",OTHERS,False\nmp-1216668,\"{'V': 6.0, 'Zn': 4.0, 'Fe': 2.0, 'O': 22.0}\",\"('Fe', 'O', 'V', 'Zn')\",OTHERS,False\nmp-1183346,\"{'Ba': 2.0, 'Ca': 6.0}\",\"('Ba', 'Ca')\",OTHERS,False\nmp-3886,\"{'C': 2.0, 'Al': 2.0, 'Zr': 4.0}\",\"('Al', 'C', 'Zr')\",OTHERS,False\nmp-10960,\"{'O': 5.0, 'S': 2.0, 'Ti': 2.0, 'Tb': 2.0}\",\"('O', 'S', 'Tb', 'Ti')\",OTHERS,False\nmp-31268,\"{'Al': 2.0, 'Br': 12.0, 'Bi': 2.0}\",\"('Al', 'Bi', 'Br')\",OTHERS,False\nmp-1187431,\"{'Ti': 2.0, 'Cu': 1.0, 'Ir': 1.0}\",\"('Cu', 'Ir', 'Ti')\",OTHERS,False\nmvc-8819,\"{'Si': 16.0, 'Ni': 4.0, 'O': 40.0}\",\"('Ni', 'O', 'Si')\",OTHERS,False\nmp-5836,\"{'O': 8.0, 'Si': 2.0, 'Th': 2.0}\",\"('O', 'Si', 'Th')\",OTHERS,False\nmvc-11655,\"{'Mg': 1.0, 'Mn': 4.0, 'O': 8.0}\",\"('Mg', 'Mn', 'O')\",OTHERS,False\nmp-1096338,\"{'Na': 1.0, 'Li': 1.0, 'Hg': 2.0}\",\"('Hg', 'Li', 'Na')\",OTHERS,False\nmp-8261,\"{'O': 9.0, 'Ba': 3.0, 'Yb': 4.0}\",\"('Ba', 'O', 'Yb')\",OTHERS,False\nmp-1105554,\"{'Tm': 8.0, 'Re': 4.0, 'C': 8.0}\",\"('C', 'Re', 'Tm')\",OTHERS,False\nmp-1175203,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-754990,\"{'Li': 4.0, 'V': 2.0, 'P': 4.0, 'H': 2.0, 'O': 16.0}\",\"('H', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-625477,\"{'Eu': 2.0, 'H': 6.0, 'O': 6.0}\",\"('Eu', 'H', 'O')\",OTHERS,False\nmp-1100664,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1202854,\"{'Pr': 20.0, 'Mo': 12.0, 'O': 64.0}\",\"('Mo', 'O', 'Pr')\",OTHERS,False\nmp-22896,\"{'Cl': 6.0, 'La': 2.0}\",\"('Cl', 'La')\",OTHERS,False\nmp-706995,\"{'Zn': 4.0, 'Co': 4.0, 'H': 72.0, 'N': 24.0, 'Cl': 20.0}\",\"('Cl', 'Co', 'H', 'N', 'Zn')\",OTHERS,False\nmp-1247556,\"{'K': 1.0, 'Ba': 1.0, 'N': 1.0}\",\"('Ba', 'K', 'N')\",OTHERS,False\nmp-753781,\"{'Eu': 1.0, 'Hf': 1.0, 'O': 3.0}\",\"('Eu', 'Hf', 'O')\",OTHERS,False\nmp-21554,\"{'P': 6.0, 'Pb': 10.0, 'O': 24.0, 'F': 2.0}\",\"('F', 'O', 'P', 'Pb')\",OTHERS,False\nmp-1184239,\"{'Er': 1.0, 'Sc': 1.0, 'Zn': 2.0}\",\"('Er', 'Sc', 'Zn')\",OTHERS,False\nmp-861915,\"{'Li': 1.0, 'Dy': 2.0, 'Ir': 1.0}\",\"('Dy', 'Ir', 'Li')\",OTHERS,False\nmp-21708,\"{'Cu': 24.0, 'Ce': 4.0}\",\"('Ce', 'Cu')\",OTHERS,False\nmp-1220197,\"{'Nd': 1.0, 'Al': 1.0, 'Cu': 4.0}\",\"('Al', 'Cu', 'Nd')\",OTHERS,False\nmp-6183,\"{'O': 12.0, 'Ru': 2.0, 'Ba': 4.0, 'Pr': 2.0}\",\"('Ba', 'O', 'Pr', 'Ru')\",OTHERS,False\nmp-1224097,\"{'K': 4.0, 'N': 2.0, 'O': 5.0}\",\"('K', 'N', 'O')\",OTHERS,False\nmp-1198084,\"{'Ca': 6.0, 'S': 6.0, 'O': 27.0}\",\"('Ca', 'O', 'S')\",OTHERS,False\nmp-1206315,\"{'Sm': 3.0, 'Cd': 3.0, 'Au': 3.0}\",\"('Au', 'Cd', 'Sm')\",OTHERS,False\nmp-560014,\"{'Pr': 6.0, 'Cu': 2.0, 'Sn': 2.0, 'S': 14.0}\",\"('Cu', 'Pr', 'S', 'Sn')\",OTHERS,False\nmp-1218470,\"{'Sr': 1.0, 'Ca': 1.0, 'Ni': 8.0, 'Sn': 4.0}\",\"('Ca', 'Ni', 'Sn', 'Sr')\",OTHERS,False\nmp-7109,\"{'Si': 2.0, 'Lu': 1.0, 'Pt': 2.0}\",\"('Lu', 'Pt', 'Si')\",OTHERS,False\nmp-555276,\"{'Sm': 8.0, 'U': 4.0, 'S': 20.0}\",\"('S', 'Sm', 'U')\",OTHERS,False\nmp-1244551,\"{'Cr': 8.0, 'Bi': 8.0, 'O': 40.0}\",\"('Bi', 'Cr', 'O')\",OTHERS,False\nmp-581967,\"{'Nb': 28.0, 'O': 70.0}\",\"('Nb', 'O')\",OTHERS,False\nmp-1217922,\"{'Ta': 1.0, 'Re': 1.0, 'Se': 4.0}\",\"('Re', 'Se', 'Ta')\",OTHERS,False\nmp-1211736,\"{'K': 2.0, 'Rb': 1.0, 'Pr': 1.0, 'V': 2.0, 'O': 8.0}\",\"('K', 'O', 'Pr', 'Rb', 'V')\",OTHERS,False\nmvc-7646,\"{'Mg': 4.0, 'Sn': 6.0, 'O': 16.0}\",\"('Mg', 'O', 'Sn')\",OTHERS,False\nmp-1093680,\"{'Mg': 1.0, 'Cr': 1.0, 'Pt': 2.0}\",\"('Cr', 'Mg', 'Pt')\",OTHERS,False\nmp-21742,\"{'Ba': 20.0, 'Al': 4.0, 'Ir': 8.0, 'O': 44.0}\",\"('Al', 'Ba', 'Ir', 'O')\",OTHERS,False\nmp-722351,\"{'H': 12.0, 'Pb': 4.0, 'S': 8.0, 'N': 12.0}\",\"('H', 'N', 'Pb', 'S')\",OTHERS,False\nmp-1006891,\"{'K': 1.0, 'Sm': 1.0, 'Se': 2.0}\",\"('K', 'Se', 'Sm')\",OTHERS,False\nmp-766589,\"{'Li': 10.0, 'Co': 16.0, 'O': 32.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1246592,\"{'Mg': 2.0, 'Fe': 10.0, 'N': 8.0}\",\"('Fe', 'Mg', 'N')\",OTHERS,False\nmp-626879,\"{'V': 12.0, 'H': 8.0, 'O': 32.0}\",\"('H', 'O', 'V')\",OTHERS,False\nmp-1078876,\"{'Er': 3.0, 'Sn': 3.0, 'Ir': 3.0}\",\"('Er', 'Ir', 'Sn')\",OTHERS,False\nmp-1187242,\"{'Ta': 1.0, 'Nb': 1.0, 'Re': 2.0}\",\"('Nb', 'Re', 'Ta')\",OTHERS,False\nmp-1027894,\"{'Mo': 3.0, 'W': 1.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-1252808,\"{'Al': 8.0, 'B': 24.0, 'H': 112.0, 'N': 8.0}\",\"('Al', 'B', 'H', 'N')\",OTHERS,False\nmp-766215,\"{'Na': 5.0, 'Li': 1.0, 'Fe': 6.0, 'Si': 12.0, 'O': 36.0}\",\"('Fe', 'Li', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1246474,\"{'Zr': 4.0, 'Cr': 4.0, 'Ag': 4.0, 'S': 16.0}\",\"('Ag', 'Cr', 'S', 'Zr')\",OTHERS,False\nmp-1018692,\"{'Er': 2.0, 'Te': 4.0}\",\"('Er', 'Te')\",OTHERS,False\nmp-11447,\"{'Te': 1.0, 'U': 1.0}\",\"('Te', 'U')\",OTHERS,False\nmp-20750,\"{'C': 1.0, 'Sn': 1.0, 'Tb': 3.0}\",\"('C', 'Sn', 'Tb')\",OTHERS,False\nmp-558544,\"{'Mo': 2.0, 'S': 4.0}\",\"('Mo', 'S')\",OTHERS,False\nmp-1216639,\"{'U': 2.0, 'Al': 3.0, 'Si': 3.0}\",\"('Al', 'Si', 'U')\",OTHERS,False\nmp-759027,\"{'Fe': 12.0, 'O': 12.0, 'F': 12.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1221042,\"{'Na': 2.0, 'Ga': 12.0, 'Ag': 2.0, 'Te': 20.0}\",\"('Ag', 'Ga', 'Na', 'Te')\",OTHERS,False\nmp-677152,\"{'Ho': 10.0, 'Te': 7.0, 'S': 10.0}\",\"('Ho', 'S', 'Te')\",OTHERS,False\nmp-645044,\"{'Mn': 8.0, 'Hg': 16.0, 'C': 48.0, 'S': 48.0, 'N': 48.0}\",\"('C', 'Hg', 'Mn', 'N', 'S')\",OTHERS,False\nmp-640118,\"{'Ce': 4.0, 'Zn': 12.0}\",\"('Ce', 'Zn')\",OTHERS,False\nmp-1094364,\"{'Mg': 12.0, 'Ti': 12.0}\",\"('Mg', 'Ti')\",OTHERS,False\nmvc-2412,\"{'Zn': 2.0, 'Cr': 9.0, 'O': 13.0}\",\"('Cr', 'O', 'Zn')\",OTHERS,False\nmp-359,\"{'P': 6.0, 'Cu': 18.0}\",\"('Cu', 'P')\",OTHERS,False\nmp-1104235,\"{'Hg': 1.0, 'H': 4.0, 'C': 2.0, 'N': 4.0, 'Cl': 2.0}\",\"('C', 'Cl', 'H', 'Hg', 'N')\",OTHERS,False\nmp-1214830,\"{'B': 6.0, 'H': 12.0, 'C': 12.0}\",\"('B', 'C', 'H')\",OTHERS,False\nmp-1220068,\"{'Rb': 4.0, 'U': 12.0, 'Pt': 8.0, 'Se': 34.0}\",\"('Pt', 'Rb', 'Se', 'U')\",OTHERS,False\nmp-1213030,\"{'Er': 8.0, 'Fe': 2.0}\",\"('Er', 'Fe')\",OTHERS,False\nmp-1175581,\"{'Li': 7.0, 'Mn': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-13008,\"{'Cr': 2.0, 'Ge': 6.0, 'Nd': 2.0}\",\"('Cr', 'Ge', 'Nd')\",OTHERS,False\nmp-30934,\"{'S': 24.0, 'As': 1.0, 'I': 3.0}\",\"('As', 'I', 'S')\",OTHERS,False\nmvc-6779,\"{'Zn': 4.0, 'Mo': 8.0, 'O': 16.0}\",\"('Mo', 'O', 'Zn')\",OTHERS,False\nmp-1112650,\"{'Cs': 3.0, 'Sm': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Sm')\",OTHERS,False\nmvc-3788,\"{'Ti': 4.0, 'Zn': 4.0, 'O': 12.0}\",\"('O', 'Ti', 'Zn')\",OTHERS,False\nmp-1183941,\"{'Ce': 4.0, 'Mg': 2.0}\",\"('Ce', 'Mg')\",OTHERS,False\nmp-1215958,\"{'Y': 2.0, 'Fe': 2.0, 'Co': 2.0}\",\"('Co', 'Fe', 'Y')\",OTHERS,False\nmp-1196079,\"{'Mg': 24.0, 'Bi': 16.0}\",\"('Bi', 'Mg')\",OTHERS,False\nmvc-5228,\"{'Mg': 6.0, 'Mn': 12.0, 'O': 24.0}\",\"('Mg', 'Mn', 'O')\",OTHERS,False\nmp-1078566,\"{'Ce': 2.0, 'Mn': 2.0, 'Se': 2.0, 'O': 3.0}\",\"('Ce', 'Mn', 'O', 'Se')\",OTHERS,False\nmp-1204595,\"{'Gd': 16.0, 'Si': 8.0, 'S': 12.0, 'O': 28.0}\",\"('Gd', 'O', 'S', 'Si')\",OTHERS,False\nmp-26612,\"{'Fe': 6.0, 'O': 24.0, 'P': 6.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmvc-7248,\"{'Ba': 1.0, 'Cu': 1.0, 'Re': 1.0, 'O': 5.0}\",\"('Ba', 'Cu', 'O', 'Re')\",OTHERS,False\nmp-779704,\"{'Si': 2.0, 'Hg': 4.0, 'O': 8.0}\",\"('Hg', 'O', 'Si')\",OTHERS,False\nmp-556063,\"{'Pr': 1.0, 'P': 3.0, 'H': 6.0, 'O': 12.0}\",\"('H', 'O', 'P', 'Pr')\",OTHERS,False\nmp-1062510,\"{'Nd': 1.0, 'Pd': 2.0}\",\"('Nd', 'Pd')\",OTHERS,False\nmp-1099583,\"{'Sm': 1.0, 'Ti': 1.0, 'O': 3.0}\",\"('O', 'Sm', 'Ti')\",OTHERS,False\nmvc-10170,\"{'Mg': 4.0, 'Cu': 8.0, 'Te': 8.0, 'O': 32.0}\",\"('Cu', 'Mg', 'O', 'Te')\",OTHERS,False\nmp-1225530,\"{'Dy': 1.0, 'Ho': 1.0, 'Mn': 4.0}\",\"('Dy', 'Ho', 'Mn')\",OTHERS,False\nmp-1079825,\"{'Ca': 1.0, 'Ti': 2.0, 'O': 6.0}\",\"('Ca', 'O', 'Ti')\",OTHERS,False\nmp-21071,\"{'Eu': 2.0, 'S': 1.0, 'O': 2.0}\",\"('Eu', 'O', 'S')\",OTHERS,False\nmp-31040,\"{'Cl': 8.0, 'Nb': 2.0}\",\"('Cl', 'Nb')\",OTHERS,False\nAl 65 Cu 15 Rh 20,\"{'Al': 65.0, 'Cu': 15.0, 'Rh': 20.0}\",\"('Al', 'Cu', 'Rh')\",QC,False\nmp-1030745,\"{'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 6.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-6328,\"{'O': 1.0, 'Na': 2.0, 'Ti': 2.0, 'Sb': 2.0}\",\"('Na', 'O', 'Sb', 'Ti')\",OTHERS,False\nmp-1185443,\"{'Li': 1.0, 'Yb': 1.0, 'Pb': 2.0}\",\"('Li', 'Pb', 'Yb')\",OTHERS,False\nZn 58 Mg 40 Ho 2,\"{'Zn': 58.0, 'Mg': 40.0, 'Ho': 2.0}\",\"('Ho', 'Mg', 'Zn')\",QC,False\nmp-1029679,\"{'Ba': 2.0, 'Ge': 14.0, 'N': 20.0}\",\"('Ba', 'Ge', 'N')\",OTHERS,False\nmp-1184015,\"{'Ga': 2.0, 'C': 2.0}\",\"('C', 'Ga')\",OTHERS,False\nmp-1205204,\"{'Zn': 8.0, 'Ni': 4.0, 'P': 8.0, 'H': 32.0, 'O': 48.0}\",\"('H', 'Ni', 'O', 'P', 'Zn')\",OTHERS,False\nmp-1096661,\"{'Hf': 2.0, 'Nb': 1.0, 'Ir': 1.0}\",\"('Hf', 'Ir', 'Nb')\",OTHERS,False\nmp-1208206,\"{'Tm': 10.0, 'In': 8.0}\",\"('In', 'Tm')\",OTHERS,False\nmp-865138,\"{'Hf': 2.0, 'Mn': 1.0, 'Ir': 1.0}\",\"('Hf', 'Ir', 'Mn')\",OTHERS,False\nmp-864789,\"{'Yb': 2.0, 'Sn': 1.0, 'Hg': 1.0}\",\"('Hg', 'Sn', 'Yb')\",OTHERS,False\nmp-704745,\"{'Cu': 8.0, 'O': 1.0}\",\"('Cu', 'O')\",OTHERS,False\nmp-1218378,\"{'Sr': 4.0, 'Br': 1.0, 'N': 2.0, 'Cl': 1.0}\",\"('Br', 'Cl', 'N', 'Sr')\",OTHERS,False\nmp-1226014,\"{'Co': 4.0, 'P': 4.0, 'Se': 4.0}\",\"('Co', 'P', 'Se')\",OTHERS,False\nmp-16479,\"{'S': 4.0, 'Yb': 2.0}\",\"('S', 'Yb')\",OTHERS,False\nmp-766711,\"{'Li': 16.0, 'Si': 8.0, 'Ni': 8.0, 'O': 32.0}\",\"('Li', 'Ni', 'O', 'Si')\",OTHERS,False\nmp-560894,\"{'Li': 8.0, 'Be': 6.0, 'P': 6.0, 'Cl': 2.0, 'O': 24.0}\",\"('Be', 'Cl', 'Li', 'O', 'P')\",OTHERS,False\nmp-1027358,\"{'Te': 4.0, 'Mo': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Te')\",OTHERS,False\nmp-1222061,\"{'Mg': 1.0, 'Al': 1.0, 'Cr': 3.0, 'Fe': 1.0, 'O': 8.0}\",\"('Al', 'Cr', 'Fe', 'Mg', 'O')\",OTHERS,False\nmp-1195450,\"{'Li': 8.0, 'Ca': 4.0, 'B': 32.0, 'H': 28.0, 'O': 70.0}\",\"('B', 'Ca', 'H', 'Li', 'O')\",OTHERS,False\nmp-1245994,\"{'Al': 2.0, 'Cr': 4.0, 'N': 6.0}\",\"('Al', 'Cr', 'N')\",OTHERS,False\nmp-1226126,\"{'Co': 1.0, 'Re': 2.0, 'Mo': 2.0, 'S': 8.0}\",\"('Co', 'Mo', 'Re', 'S')\",OTHERS,False\nmp-707110,\"{'Co': 12.0, 'C': 28.0, 'S': 8.0, 'O': 28.0}\",\"('C', 'Co', 'O', 'S')\",OTHERS,False\nmp-20543,\"{'C': 1.0, 'Sn': 1.0, 'Pr': 3.0}\",\"('C', 'Pr', 'Sn')\",OTHERS,False\nmp-765036,\"{'Li': 4.0, 'Mn': 2.0, 'O': 2.0, 'F': 6.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-14665,\"{'O': 32.0, 'S': 8.0, 'K': 4.0, 'Nd': 4.0}\",\"('K', 'Nd', 'O', 'S')\",OTHERS,False\nmp-1175158,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1186532,\"{'Pm': 3.0, 'Ti': 1.0}\",\"('Pm', 'Ti')\",OTHERS,False\nmp-1175088,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-571448,\"{'Cs': 2.0, 'Pu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Pu')\",OTHERS,False\nmp-5518,\"{'Ga': 2.0, 'Se': 4.0, 'Ag': 2.0}\",\"('Ag', 'Ga', 'Se')\",OTHERS,False\nmp-849423,\"{'Li': 6.0, 'Mn': 3.0, 'V': 3.0, 'P': 6.0, 'H': 6.0, 'O': 30.0}\",\"('H', 'Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-761204,\"{'Li': 12.0, 'Mn': 2.0, 'V': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1113566,\"{'Eu': 1.0, 'Cs': 2.0, 'Ag': 1.0, 'Cl': 6.0}\",\"('Ag', 'Cl', 'Cs', 'Eu')\",OTHERS,False\nmp-1190904,\"{'Tb': 12.0, 'Si': 8.0, 'Ni': 4.0}\",\"('Ni', 'Si', 'Tb')\",OTHERS,False\nmp-760091,\"{'Nb': 8.0, 'S': 16.0, 'O': 64.0}\",\"('Nb', 'O', 'S')\",OTHERS,False\nmp-1225825,\"{'La': 3.0, 'Gd': 1.0, 'Br': 4.0, 'O': 4.0}\",\"('Br', 'Gd', 'La', 'O')\",OTHERS,False\nmp-551135,\"{'O': 5.0, 'B': 2.0, 'Cu': 1.0, 'Ba': 1.0}\",\"('B', 'Ba', 'Cu', 'O')\",OTHERS,False\nCd 6 Dy 1,\"{'Cd': 6.0, 'Dy': 1.0}\",\"('Cd', 'Dy')\",AC,False\nmp-1079059,\"{'Er': 4.0, 'In': 2.0, 'Au': 4.0}\",\"('Au', 'Er', 'In')\",OTHERS,False\nmp-69,{'Sm': 4.0},\"('Sm',)\",OTHERS,False\nmp-779428,\"{'Sr': 8.0, 'Hf': 2.0, 'O': 12.0}\",\"('Hf', 'O', 'Sr')\",OTHERS,False\nmp-1245132,\"{'Ga': 50.0, 'N': 50.0}\",\"('Ga', 'N')\",OTHERS,False\nmp-1095025,\"{'Pr': 1.0, 'Cr': 2.0, 'B': 6.0}\",\"('B', 'Cr', 'Pr')\",OTHERS,False\nmp-24,{'C': 8.0},\"('C',)\",OTHERS,False\nmp-1093899,\"{'Zr': 1.0, 'Cd': 1.0, 'Pt': 2.0}\",\"('Cd', 'Pt', 'Zr')\",OTHERS,False\nCd 6 Sr 1,\"{'Cd': 6.0, 'Sr': 1.0}\",\"('Cd', 'Sr')\",AC,False\nmp-778102,\"{'Ba': 4.0, 'Y': 4.0, 'F': 20.0}\",\"('Ba', 'F', 'Y')\",OTHERS,False\nmp-758280,\"{'Li': 2.0, 'V': 3.0, 'C': 6.0, 'O': 18.0}\",\"('C', 'Li', 'O', 'V')\",OTHERS,False\nmvc-6533,\"{'Ca': 2.0, 'W': 4.0, 'O': 8.0}\",\"('Ca', 'O', 'W')\",OTHERS,False\nmp-1078100,\"{'Cd': 1.0, 'P': 1.0, 'Pd': 5.0}\",\"('Cd', 'P', 'Pd')\",OTHERS,False\nmp-690014,\"{'Ni': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Ni', 'O', 'P')\",OTHERS,False\nmp-1096129,\"{'La': 2.0, 'Hg': 1.0, 'Ru': 1.0}\",\"('Hg', 'La', 'Ru')\",OTHERS,False\nmp-1080452,\"{'K': 1.0, 'Cd': 4.0, 'As': 3.0}\",\"('As', 'Cd', 'K')\",OTHERS,False\nmp-629397,\"{'Fe': 1.0, 'Ni': 1.0, 'N': 1.0}\",\"('Fe', 'N', 'Ni')\",OTHERS,False\nmp-1193017,\"{'Gd': 6.0, 'Zn': 23.0}\",\"('Gd', 'Zn')\",OTHERS,False\nmp-771304,\"{'Li': 6.0, 'Si': 2.0, 'Sb': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Li', 'O', 'Sb', 'Si')\",OTHERS,False\nmp-1206263,\"{'Tm': 3.0, 'Mg': 3.0, 'Ag': 3.0}\",\"('Ag', 'Mg', 'Tm')\",OTHERS,False\nmp-1027051,\"{'Mo': 3.0, 'W': 1.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-1194116,\"{'Ce': 4.0, 'Mo': 4.0, 'Br': 4.0, 'O': 16.0}\",\"('Br', 'Ce', 'Mo', 'O')\",OTHERS,False\nmp-1200004,\"{'Ho': 18.0, 'C': 18.0, 'O': 72.0}\",\"('C', 'Ho', 'O')\",OTHERS,False\nmp-31426,\"{'Ni': 3.0, 'In': 3.0, 'Ho': 3.0}\",\"('Ho', 'In', 'Ni')\",OTHERS,False\nmp-11334,{'W': 8.0},\"('W',)\",OTHERS,False\nmp-674343,\"{'Ti': 10.0, 'Cu': 7.0, 'S': 20.0}\",\"('Cu', 'S', 'Ti')\",OTHERS,False\nmp-984744,\"{'Ca': 6.0, 'Tl': 2.0}\",\"('Ca', 'Tl')\",OTHERS,False\nmp-1072798,\"{'Er': 2.0, 'Al': 2.0, 'Zn': 2.0}\",\"('Al', 'Er', 'Zn')\",OTHERS,False\nmp-553972,\"{'Cu': 8.0, 'C': 8.0, 'S': 8.0, 'N': 8.0}\",\"('C', 'Cu', 'N', 'S')\",OTHERS,False\nmp-1179159,\"{'Tl': 2.0, 'C': 8.0, 'S': 8.0, 'N': 2.0}\",\"('C', 'N', 'S', 'Tl')\",OTHERS,False\nmp-7723,\"{'F': 4.0, 'Na': 1.0, 'Al': 1.0}\",\"('Al', 'F', 'Na')\",OTHERS,False\nmp-1102615,\"{'Ce': 4.0, 'Te': 4.0, 'Cl': 4.0}\",\"('Ce', 'Cl', 'Te')\",OTHERS,False\nmp-754254,\"{'P': 4.0, 'W': 2.0, 'O': 16.0}\",\"('O', 'P', 'W')\",OTHERS,False\nmp-505611,\"{'O': 2.0, 'S': 2.0, 'Ni': 1.0, 'Cu': 2.0, 'Sr': 2.0}\",\"('Cu', 'Ni', 'O', 'S', 'Sr')\",OTHERS,False\nmp-1114383,\"{'Rb': 2.0, 'Tl': 2.0, 'I': 6.0}\",\"('I', 'Rb', 'Tl')\",OTHERS,False\nmp-1215213,\"{'Zr': 1.0, 'Ta': 1.0, 'Cr': 4.0}\",\"('Cr', 'Ta', 'Zr')\",OTHERS,False\nmvc-16046,\"{'Sr': 3.0, 'Mg': 1.0, 'Mn': 2.0, 'S': 2.0, 'O': 5.0}\",\"('Mg', 'Mn', 'O', 'S', 'Sr')\",OTHERS,False\nmp-1207675,\"{'Tm': 4.0, 'Si': 4.0, 'Ir': 4.0}\",\"('Ir', 'Si', 'Tm')\",OTHERS,False\nmp-777475,\"{'Li': 6.0, 'Fe': 2.0, 'F': 12.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-1007685,\"{'In': 1.0, 'Ag': 1.0, 'Se': 2.0}\",\"('Ag', 'In', 'Se')\",OTHERS,False\nmp-26745,\"{'Li': 2.0, 'Sb': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'O', 'P', 'Sb')\",OTHERS,False\nmp-755301,\"{'Ni': 6.0, 'O': 1.0, 'F': 11.0}\",\"('F', 'Ni', 'O')\",OTHERS,False\nmp-28241,\"{'Zr': 6.0, 'I': 12.0}\",\"('I', 'Zr')\",OTHERS,False\nmp-1191093,\"{'Gd': 2.0, 'Fe': 17.0, 'H': 3.0}\",\"('Fe', 'Gd', 'H')\",OTHERS,False\nmp-1026440,\"{'Hf': 1.0, 'Mg': 14.0, 'Cd': 1.0}\",\"('Cd', 'Hf', 'Mg')\",OTHERS,False\nmp-753398,\"{'W': 4.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'O', 'W')\",OTHERS,False\nmp-1001918,\"{'Hf': 1.0, 'C': 1.0}\",\"('C', 'Hf')\",OTHERS,False\nmp-28828,\"{'Li': 6.0, 'Cl': 8.0, 'Fe': 1.0}\",\"('Cl', 'Fe', 'Li')\",OTHERS,False\nmp-546007,\"{'La': 2.0, 'Mo': 1.0, 'O': 6.0}\",\"('La', 'Mo', 'O')\",OTHERS,False\nmp-1038045,\"{'Ca': 1.0, 'Mg': 30.0, 'Fe': 1.0, 'O': 32.0}\",\"('Ca', 'Fe', 'Mg', 'O')\",OTHERS,False\nmp-972423,\"{'Tb': 2.0, 'Ga': 4.0, 'Pd': 2.0}\",\"('Ga', 'Pd', 'Tb')\",OTHERS,False\nmp-753334,\"{'V': 4.0, 'O': 7.0, 'F': 5.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-1229107,\"{'Ag': 3.0, 'Sn': 1.0}\",\"('Ag', 'Sn')\",OTHERS,False\nmp-1210906,\"{'Na': 2.0, 'Mn': 1.0, 'Sb': 2.0}\",\"('Mn', 'Na', 'Sb')\",OTHERS,False\nmp-20836,\"{'Ni': 4.0, 'As': 4.0, 'Nd': 2.0}\",\"('As', 'Nd', 'Ni')\",OTHERS,False\nmp-1098064,\"{'Cs': 1.0, 'Hf': 1.0, 'Mg': 14.0, 'O': 15.0}\",\"('Cs', 'Hf', 'Mg', 'O')\",OTHERS,False\nmp-20857,\"{'B': 4.0, 'Co': 4.0}\",\"('B', 'Co')\",OTHERS,False\nmp-1186267,\"{'Nd': 6.0, 'Er': 2.0}\",\"('Er', 'Nd')\",OTHERS,False\nmp-29997,\"{'As': 4.0, 'I': 12.0, 'La': 12.0}\",\"('As', 'I', 'La')\",OTHERS,False\nmp-41701,\"{'Li': 2.0, 'Co': 4.0, 'P': 8.0, 'H': 6.0, 'O': 28.0}\",\"('Co', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-23965,\"{'H': 16.0, 'O': 8.0, 'Co': 2.0, 'Br': 4.0}\",\"('Br', 'Co', 'H', 'O')\",OTHERS,False\nmp-569819,\"{'Th': 14.0, 'Os': 6.0}\",\"('Os', 'Th')\",OTHERS,False\nmp-21547,\"{'Na': 24.0, 'In': 8.0, 'Sb': 16.0}\",\"('In', 'Na', 'Sb')\",OTHERS,False\nmp-1192391,\"{'Rb': 2.0, 'Li': 4.0, 'Cd': 2.0, 'C': 4.0, 'O': 12.0, 'F': 2.0}\",\"('C', 'Cd', 'F', 'Li', 'O', 'Rb')\",OTHERS,False\nmp-1183106,\"{'Ac': 2.0, 'Zn': 1.0, 'In': 1.0}\",\"('Ac', 'In', 'Zn')\",OTHERS,False\nmp-1207531,\"{'Zn': 12.0, 'B': 28.0, 'I': 4.0, 'O': 52.0}\",\"('B', 'I', 'O', 'Zn')\",OTHERS,False\nmp-771902,\"{'Li': 4.0, 'Ti': 3.0, 'Cr': 2.0, 'Fe': 3.0, 'O': 16.0}\",\"('Cr', 'Fe', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-751967,\"{'V': 8.0, 'Ni': 4.0, 'P': 8.0, 'H': 24.0, 'O': 52.0}\",\"('H', 'Ni', 'O', 'P', 'V')\",OTHERS,False\nmp-13002,\"{'F': 12.0, 'Si': 2.0, 'K': 4.0}\",\"('F', 'K', 'Si')\",OTHERS,False\nmp-1222646,\"{'Li': 2.0, 'Mg': 1.0, 'Hg': 1.0}\",\"('Hg', 'Li', 'Mg')\",OTHERS,False\nmp-1105961,\"{'Th': 4.0, 'Ta': 4.0, 'N': 12.0}\",\"('N', 'Ta', 'Th')\",OTHERS,False\nmp-775811,\"{'Li': 4.0, 'V': 4.0, 'Fe': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'V')\",OTHERS,False\nmvc-4608,\"{'Y': 2.0, 'Cr': 4.0, 'O': 8.0}\",\"('Cr', 'O', 'Y')\",OTHERS,False\nmp-555458,\"{'Ba': 4.0, 'Fe': 2.0, 'S': 4.0, 'I': 5.0}\",\"('Ba', 'Fe', 'I', 'S')\",OTHERS,False\nmp-7167,\"{'C': 1.0, 'Rh': 3.0, 'Sm': 1.0}\",\"('C', 'Rh', 'Sm')\",OTHERS,False\nmp-755965,\"{'Li': 2.0, 'Ti': 2.0, 'Fe': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-982730,\"{'Ho': 2.0, 'Zn': 1.0, 'Ir': 1.0}\",\"('Ho', 'Ir', 'Zn')\",OTHERS,False\nmp-561398,\"{'Na': 2.0, 'Al': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Al', 'Mo', 'Na', 'O')\",OTHERS,False\nmp-766887,\"{'Li': 13.0, 'Co': 15.0, 'O': 28.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-755278,\"{'Li': 2.0, 'V': 1.0, 'Cr': 1.0, 'O': 4.0}\",\"('Cr', 'Li', 'O', 'V')\",OTHERS,False\nmp-777897,\"{'Li': 4.0, 'Ti': 2.0, 'V': 3.0, 'Cu': 3.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'Ti', 'V')\",OTHERS,False\nmp-1205148,\"{'Pr': 2.0, 'H': 40.0, 'S': 8.0, 'N': 10.0, 'O': 32.0}\",\"('H', 'N', 'O', 'Pr', 'S')\",OTHERS,False\nmp-560577,\"{'F': 28.0, 'Ca': 4.0, 'Cr': 4.0, 'Ba': 4.0}\",\"('Ba', 'Ca', 'Cr', 'F')\",OTHERS,False\nmp-754198,\"{'Ba': 1.0, 'La': 2.0, 'I': 8.0}\",\"('Ba', 'I', 'La')\",OTHERS,False\nmp-777464,\"{'Li': 4.0, 'Ti': 5.0, 'Cr': 3.0, 'O': 16.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,False\nmp-755995,\"{'P': 4.0, 'W': 2.0, 'O': 14.0}\",\"('O', 'P', 'W')\",OTHERS,False\nmp-1221200,\"{'Na': 8.0, 'Li': 8.0, 'Mn': 2.0, 'Fe': 6.0, 'P': 8.0, 'O': 32.0, 'F': 8.0}\",\"('F', 'Fe', 'Li', 'Mn', 'Na', 'O', 'P')\",OTHERS,False\nmp-1029396,\"{'Sr': 2.0, 'Hf': 2.0, 'N': 4.0}\",\"('Hf', 'N', 'Sr')\",OTHERS,False\nmvc-15700,\"{'Te': 1.0, 'F': 6.0}\",\"('F', 'Te')\",OTHERS,False\nmp-10141,\"{'B': 2.0, 'Sm': 1.0}\",\"('B', 'Sm')\",OTHERS,False\nmp-1225916,\"{'Cs': 2.0, 'C': 2.0, 'N': 2.0, 'O': 2.0}\",\"('C', 'Cs', 'N', 'O')\",OTHERS,False\nmp-570369,\"{'Ce': 32.0, 'Ru': 18.0}\",\"('Ce', 'Ru')\",OTHERS,False\nmp-673174,\"{'Fe': 24.0, 'N': 9.0}\",\"('Fe', 'N')\",OTHERS,False\nmp-771034,\"{'Li': 6.0, 'Mn': 2.0, 'As': 2.0, 'C': 2.0, 'O': 14.0}\",\"('As', 'C', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-983556,\"{'Er': 2.0, 'Mg': 1.0, 'Tl': 1.0}\",\"('Er', 'Mg', 'Tl')\",OTHERS,False\nmp-1238813,\"{'Li': 2.0, 'Cr': 4.0, 'S': 8.0}\",\"('Cr', 'Li', 'S')\",OTHERS,False\nmp-669471,\"{'Hg': 4.0, 'S': 16.0, 'N': 12.0, 'Cl': 12.0}\",\"('Cl', 'Hg', 'N', 'S')\",OTHERS,False\nmp-752571,\"{'Li': 5.0, 'Co': 7.0, 'O': 3.0, 'F': 13.0}\",\"('Co', 'F', 'Li', 'O')\",OTHERS,False\nmp-532220,\"{'Cr': 48.0, 'Dy': 16.0, 'S': 96.0}\",\"('Cr', 'Dy', 'S')\",OTHERS,False\nmp-1029256,\"{'Te': 8.0, 'Mo': 2.0, 'W': 2.0}\",\"('Mo', 'Te', 'W')\",OTHERS,False\nmp-554665,\"{'Si': 8.0, 'O': 16.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1184254,\"{'Ga': 1.0, 'Pd': 3.0}\",\"('Ga', 'Pd')\",OTHERS,False\nmp-1192847,\"{'Ho': 6.0, 'Zn': 23.0}\",\"('Ho', 'Zn')\",OTHERS,False\nmp-5788,\"{'Na': 4.0, 'U': 4.0, 'O': 12.0}\",\"('Na', 'O', 'U')\",OTHERS,False\nmp-19805,\"{'Ge': 2.0, 'Pt': 2.0, 'U': 1.0}\",\"('Ge', 'Pt', 'U')\",OTHERS,False\nmp-558592,\"{'Sb': 32.0, 'Br': 8.0, 'O': 44.0}\",\"('Br', 'O', 'Sb')\",OTHERS,False\nmp-1206332,\"{'Sr': 2.0, 'La': 1.0, 'Sb': 1.0, 'O': 6.0}\",\"('La', 'O', 'Sb', 'Sr')\",OTHERS,False\nmp-1070394,\"{'Ce': 1.0, 'Si': 3.0, 'Rh': 1.0}\",\"('Ce', 'Rh', 'Si')\",OTHERS,False\nmp-1214183,\"{'Ca': 12.0, 'Al': 86.0, 'W': 8.0}\",\"('Al', 'Ca', 'W')\",OTHERS,False\nmp-1204837,\"{'Na': 4.0, 'Fe': 8.0, 'Si': 24.0, 'O': 60.0}\",\"('Fe', 'Na', 'O', 'Si')\",OTHERS,False\nmp-684496,\"{'Sb': 4.0, 'P': 8.0, 'O': 28.0}\",\"('O', 'P', 'Sb')\",OTHERS,False\nmp-1246291,\"{'Dy': 2.0, 'Mg': 2.0, 'W': 2.0, 'S': 8.0}\",\"('Dy', 'Mg', 'S', 'W')\",OTHERS,False\nmp-1038514,\"{'Hf': 1.0, 'Mg': 30.0, 'Cd': 1.0, 'O': 32.0}\",\"('Cd', 'Hf', 'Mg', 'O')\",OTHERS,False\nmp-850751,\"{'Li': 4.0, 'V': 4.0, 'P': 8.0, 'H': 8.0, 'O': 32.0}\",\"('H', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1102068,\"{'Dy': 4.0, 'As': 4.0, 'Pd': 4.0}\",\"('As', 'Dy', 'Pd')\",OTHERS,False\nmp-981262,\"{'Yb': 2.0, 'F': 2.0}\",\"('F', 'Yb')\",OTHERS,False\nmp-1184403,\"{'Gd': 2.0, 'Al': 1.0, 'Cd': 1.0}\",\"('Al', 'Cd', 'Gd')\",OTHERS,False\nmvc-3750,\"{'Mg': 4.0, 'Mo': 4.0, 'F': 20.0}\",\"('F', 'Mg', 'Mo')\",OTHERS,False\nmp-756919,\"{'Mg': 6.0, 'As': 4.0, 'O': 16.0}\",\"('As', 'Mg', 'O')\",OTHERS,False\nmp-1099096,\"{'Ce': 1.0, 'Mg': 14.0, 'Cd': 1.0}\",\"('Cd', 'Ce', 'Mg')\",OTHERS,False\nmp-866108,\"{'Hf': 2.0, 'Zn': 6.0}\",\"('Hf', 'Zn')\",OTHERS,False\nmp-1232334,\"{'Sr': 3.0, 'Cu': 2.0, 'O': 4.0, 'F': 4.0}\",\"('Cu', 'F', 'O', 'Sr')\",OTHERS,False\nmp-21372,\"{'O': 2.0, 'P': 2.0, 'Ru': 2.0, 'Ce': 2.0}\",\"('Ce', 'O', 'P', 'Ru')\",OTHERS,False\nmp-9518,\"{'O': 2.0, 'P': 2.0, 'Zn': 2.0, 'Nd': 2.0}\",\"('Nd', 'O', 'P', 'Zn')\",OTHERS,False\nmp-1219419,\"{'Sc': 5.0, 'P': 12.0, 'Ir': 19.0}\",\"('Ir', 'P', 'Sc')\",OTHERS,False\nmp-863697,\"{'Pm': 2.0, 'Li': 1.0, 'Si': 1.0}\",\"('Li', 'Pm', 'Si')\",OTHERS,False\nmp-755334,\"{'Co': 6.0, 'O': 4.0, 'F': 8.0}\",\"('Co', 'F', 'O')\",OTHERS,False\nmp-769649,\"{'Gd': 2.0, 'Ta': 6.0, 'O': 18.0}\",\"('Gd', 'O', 'Ta')\",OTHERS,False\nmp-1211869,\"{'La': 12.0, 'Sc': 8.0, 'Ga': 12.0, 'O': 48.0}\",\"('Ga', 'La', 'O', 'Sc')\",OTHERS,False\nmp-1216689,\"{'Tl': 1.0, 'Cr': 5.0, 'Te': 8.0}\",\"('Cr', 'Te', 'Tl')\",OTHERS,False\nmp-1236984,\"{'Na': 2.0, 'Mg': 4.0, 'S': 6.0, 'O': 24.0}\",\"('Mg', 'Na', 'O', 'S')\",OTHERS,False\nmp-1251411,\"{'Na': 4.0, 'Al': 4.0, 'H': 32.0, 'N': 16.0}\",\"('Al', 'H', 'N', 'Na')\",OTHERS,False\nCr 5 Ni 3 Si 2,\"{'Cr': 5.0, 'Ni': 3.0, 'Si': 2.0}\",\"('Cr', 'Ni', 'Si')\",QC,False\nmp-762052,\"{'Na': 4.0, 'Ga': 22.0, 'O': 34.0}\",\"('Ga', 'Na', 'O')\",OTHERS,False\nmp-1214838,\"{'Al': 18.0, 'Cr': 6.0, 'Si': 2.0}\",\"('Al', 'Cr', 'Si')\",OTHERS,False\nmp-1247387,\"{'Li': 12.0, 'C': 4.0, 'N': 8.0}\",\"('C', 'Li', 'N')\",OTHERS,False\nmp-1014296,\"{'C': 6.0, 'N': 2.0}\",\"('C', 'N')\",OTHERS,False\nmp-1247156,\"{'Co': 1.0, 'Ni': 2.0, 'N': 2.0}\",\"('Co', 'N', 'Ni')\",OTHERS,False\nmp-1079296,\"{'Hf': 2.0, 'Au': 6.0}\",\"('Au', 'Hf')\",OTHERS,False\nCd 6 Sm 1,\"{'Cd': 6.0, 'Sm': 1.0}\",\"('Cd', 'Sm')\",AC,False\nmp-569698,\"{'U': 1.0, 'Al': 2.0, 'Pd': 5.0}\",\"('Al', 'Pd', 'U')\",OTHERS,False\nmp-31456,\"{'Ru': 1.0, 'Sb': 1.0, 'Hf': 1.0}\",\"('Hf', 'Ru', 'Sb')\",OTHERS,False\nmp-1014993,\"{'Cr': 4.0, 'N': 8.0}\",\"('Cr', 'N')\",OTHERS,False\nmp-1173467,\"{'Rb': 2.0, 'Na': 2.0, 'Mg': 10.0, 'Si': 24.0, 'O': 60.0}\",\"('Mg', 'Na', 'O', 'Rb', 'Si')\",OTHERS,False\nmp-780172,\"{'Tm': 8.0, 'Te': 4.0, 'O': 24.0}\",\"('O', 'Te', 'Tm')\",OTHERS,False\nmp-753051,\"{'Li': 2.0, 'Cr': 2.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('Cr', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-677074,\"{'Pb': 2.0, 'O': 2.0}\",\"('O', 'Pb')\",OTHERS,False\nmp-26739,\"{'Cr': 8.0, 'Li': 12.0, 'O': 48.0, 'P': 12.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1232447,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1245775,\"{'Sr': 12.0, 'Ta': 8.0, 'N': 16.0}\",\"('N', 'Sr', 'Ta')\",OTHERS,False\nmp-26532,\"{'O': 20.0, 'P': 6.0, 'Cu': 4.0}\",\"('Cu', 'O', 'P')\",OTHERS,False\nmp-1523,\"{'P': 8.0, 'Zr': 4.0}\",\"('P', 'Zr')\",OTHERS,False\nmp-21268,\"{'Si': 4.0, 'As': 8.0}\",\"('As', 'Si')\",OTHERS,False\nmp-1228516,\"{'Ba': 2.0, 'Nd': 2.0, 'Fe': 1.0, 'Co': 3.0, 'O': 12.0}\",\"('Ba', 'Co', 'Fe', 'Nd', 'O')\",OTHERS,False\nmp-17546,\"{'O': 16.0, 'Ru': 4.0, 'Cs': 8.0}\",\"('Cs', 'O', 'Ru')\",OTHERS,False\nmp-30978,\"{'Al': 8.0, 'K': 4.0, 'Br': 28.0}\",\"('Al', 'Br', 'K')\",OTHERS,False\nmp-1246166,\"{'Zr': 1.0, 'Fe': 2.0, 'N': 2.0}\",\"('Fe', 'N', 'Zr')\",OTHERS,False\nmvc-2922,\"{'Ca': 4.0, 'Mn': 4.0, 'O': 8.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,False\nmp-1194311,\"{'Sc': 3.0, 'Ni': 20.0, 'B': 6.0}\",\"('B', 'Ni', 'Sc')\",OTHERS,False\nmp-1183956,\"{'Cs': 2.0, 'La': 2.0}\",\"('Cs', 'La')\",OTHERS,False\nmp-510471,\"{'Cu': 4.0, 'Gd': 4.0, 'S': 8.0}\",\"('Cu', 'Gd', 'S')\",OTHERS,False\nmp-560637,\"{'Ga': 8.0, 'S': 40.0, 'N': 40.0, 'Cl': 32.0}\",\"('Cl', 'Ga', 'N', 'S')\",OTHERS,False\nmp-1201689,\"{'La': 8.0, 'Ni': 24.0, 'B': 8.0}\",\"('B', 'La', 'Ni')\",OTHERS,False\nAl 70 Pd 20 Re 10,\"{'Al': 70.0, 'Pd': 20.0, 'Re': 10.0}\",\"('Al', 'Pd', 'Re')\",QC,False\nmp-1078916,\"{'Tm': 4.0, 'In': 2.0, 'Cu': 4.0}\",\"('Cu', 'In', 'Tm')\",OTHERS,False\nmp-1098545,\"{'Sr': 1.0, 'Hf': 1.0, 'Mg': 30.0, 'O': 32.0}\",\"('Hf', 'Mg', 'O', 'Sr')\",OTHERS,False\nmp-1201234,\"{'Cu': 4.0, 'H': 32.0, 'S': 12.0, 'O': 40.0}\",\"('Cu', 'H', 'O', 'S')\",OTHERS,False\nmp-644245,\"{'Na': 4.0, 'P': 2.0, 'H': 6.0, 'O': 10.0}\",\"('H', 'Na', 'O', 'P')\",OTHERS,False\nmp-1196828,\"{'Na': 4.0, 'Li': 4.0, 'Mg': 4.0, 'P': 4.0, 'O': 16.0, 'F': 4.0}\",\"('F', 'Li', 'Mg', 'Na', 'O', 'P')\",OTHERS,False\nmp-772972,\"{'Li': 8.0, 'Ti': 8.0, 'O': 20.0}\",\"('Li', 'O', 'Ti')\",OTHERS,False\nmp-752698,\"{'Li': 4.0, 'Cr': 2.0, 'Cu': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Cr', 'Cu', 'Li', 'O', 'P')\",OTHERS,False\nmp-24118,\"{'H': 20.0, 'O': 16.0, 'S': 2.0}\",\"('H', 'O', 'S')\",OTHERS,False\nmp-1079367,\"{'U': 3.0, 'Al': 3.0, 'Co': 3.0}\",\"('Al', 'Co', 'U')\",OTHERS,False\nmp-1182361,\"{'Ba': 2.0, 'B': 10.0, 'O': 20.0}\",\"('B', 'Ba', 'O')\",OTHERS,False\nmp-12464,\"{'Co': 2.0, 'Se': 4.0, 'Pd': 4.0}\",\"('Co', 'Pd', 'Se')\",OTHERS,False\nmp-1223550,\"{'K': 1.0, 'P': 4.0, 'N': 3.0, 'O': 16.0}\",\"('K', 'N', 'O', 'P')\",OTHERS,False\nmp-765515,\"{'Li': 1.0, 'Co': 15.0, 'O': 16.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1183449,\"{'Be': 1.0, 'V': 1.0, 'O': 3.0}\",\"('Be', 'O', 'V')\",OTHERS,False\nmp-237,\"{'Te': 1.0, 'Tm': 1.0}\",\"('Te', 'Tm')\",OTHERS,False\nmp-1103859,\"{'Tl': 1.0, 'Mo': 6.0, 'S': 8.0}\",\"('Mo', 'S', 'Tl')\",OTHERS,False\nmp-15257,\"{'Se': 12.0, 'Tb': 8.0}\",\"('Se', 'Tb')\",OTHERS,False\nmp-1185847,\"{'Mg': 1.0, 'Bi': 1.0, 'O': 3.0}\",\"('Bi', 'Mg', 'O')\",OTHERS,False\nmvc-353,\"{'Ba': 2.0, 'Tl': 2.0, 'Co': 4.0, 'O': 12.0}\",\"('Ba', 'Co', 'O', 'Tl')\",OTHERS,False\nmp-637220,\"{'Gd': 2.0, 'Si': 4.0, 'Pt': 4.0}\",\"('Gd', 'Pt', 'Si')\",OTHERS,False\nmp-29536,\"{'C': 4.0, 'F': 16.0, 'Ag': 20.0}\",\"('Ag', 'C', 'F')\",OTHERS,False\nmp-27100,\"{'Cr': 8.0, 'O': 52.0, 'P': 12.0}\",\"('Cr', 'O', 'P')\",OTHERS,False\nmp-1211688,\"{'K': 2.0, 'Li': 2.0, 'Ho': 4.0, 'Mo': 8.0, 'O': 32.0}\",\"('Ho', 'K', 'Li', 'Mo', 'O')\",OTHERS,False\nmp-29979,\"{'B': 6.0, 'C': 2.0, 'Nb': 6.0}\",\"('B', 'C', 'Nb')\",OTHERS,False\nmp-1247586,\"{'Sr': 1.0, 'Ca': 7.0, 'Mn': 6.0, 'Cr': 2.0, 'O': 21.0}\",\"('Ca', 'Cr', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-21526,\"{'K': 16.0, 'Pb': 16.0}\",\"('K', 'Pb')\",OTHERS,False\nmp-1080388,\"{'Pu': 1.0, 'Pt': 5.0}\",\"('Pt', 'Pu')\",OTHERS,False\nmp-770537,\"{'Li': 4.0, 'Mn': 8.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-707040,\"{'Ca': 2.0, 'Al': 4.0, 'H': 32.0, 'N': 18.0}\",\"('Al', 'Ca', 'H', 'N')\",OTHERS,False\nmp-568685,\"{'Tm': 4.0, 'Al': 4.0, 'Rh': 4.0}\",\"('Al', 'Rh', 'Tm')\",OTHERS,False\nmp-779987,\"{'Fe': 6.0, 'O': 2.0, 'F': 10.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-8456,\"{'As': 2.0, 'Sr': 2.0, 'Pt': 2.0}\",\"('As', 'Pt', 'Sr')\",OTHERS,False\nmp-775274,\"{'K': 8.0, 'Cr': 4.0, 'O': 16.0}\",\"('Cr', 'K', 'O')\",OTHERS,False\nmp-753971,\"{'Li': 5.0, 'Fe': 1.0, 'Ni': 4.0, 'O': 10.0}\",\"('Fe', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-504748,\"{'Pb': 10.0, 'P': 6.0, 'O': 24.0, 'Cl': 2.0}\",\"('Cl', 'O', 'P', 'Pb')\",OTHERS,False\nmp-1228616,\"{'Ba': 4.0, 'Pb': 8.0, 'S': 12.0, 'O': 48.0}\",\"('Ba', 'O', 'Pb', 'S')\",OTHERS,False\nmp-1210400,\"{'Na': 6.0, 'Li': 2.0, 'Ti': 4.0, 'F': 24.0}\",\"('F', 'Li', 'Na', 'Ti')\",OTHERS,False\nmp-22784,\"{'Ni': 3.0, 'In': 1.0}\",\"('In', 'Ni')\",OTHERS,False\nmp-780690,\"{'Co': 6.0, 'O': 8.0, 'F': 4.0}\",\"('Co', 'F', 'O')\",OTHERS,False\nmp-744713,\"{'Na': 4.0, 'Fe': 12.0, 'P': 8.0, 'H': 32.0, 'O': 56.0}\",\"('Fe', 'H', 'Na', 'O', 'P')\",OTHERS,False\nmp-770328,\"{'Li': 8.0, 'Cr': 6.0, 'Fe': 2.0, 'O': 16.0}\",\"('Cr', 'Fe', 'Li', 'O')\",OTHERS,False\nmvc-6159,\"{'Ca': 4.0, 'Y': 2.0, 'Sb': 2.0, 'O': 10.0}\",\"('Ca', 'O', 'Sb', 'Y')\",OTHERS,False\nmp-1099308,\"{'Ba': 1.0, 'Li': 1.0, 'Mg': 6.0}\",\"('Ba', 'Li', 'Mg')\",OTHERS,False\nmp-552185,\"{'O': 6.0, 'N': 2.0, 'Ag': 2.0}\",\"('Ag', 'N', 'O')\",OTHERS,False\nmp-1175655,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-866021,\"{'Eu': 1.0, 'In': 1.0, 'Au': 2.0}\",\"('Au', 'Eu', 'In')\",OTHERS,False\nmp-1100441,\"{'Cr': 1.0, 'Cu': 1.0, 'B': 1.0}\",\"('B', 'Cr', 'Cu')\",OTHERS,False\nmp-1190799,\"{'Ca': 2.0, 'P': 4.0, 'O': 18.0}\",\"('Ca', 'O', 'P')\",OTHERS,False\nmp-1177411,\"{'Li': 4.0, 'Fe': 3.0, 'Ni': 2.0, 'Sb': 3.0, 'O': 16.0}\",\"('Fe', 'Li', 'Ni', 'O', 'Sb')\",OTHERS,False\nmp-1225961,\"{'Cs': 2.0, 'Sc': 2.0, 'Cu': 2.0, 'F': 12.0}\",\"('Cs', 'Cu', 'F', 'Sc')\",OTHERS,False\nmp-1183321,\"{'Ba': 1.0, 'Sr': 2.0, 'Ca': 1.0}\",\"('Ba', 'Ca', 'Sr')\",OTHERS,False\nmp-755996,\"{'Li': 5.0, 'Fe': 3.0, 'Cu': 2.0, 'O': 10.0}\",\"('Cu', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1207480,\"{'Y': 4.0, 'Mn': 2.0, 'C': 8.0}\",\"('C', 'Mn', 'Y')\",OTHERS,False\nmp-672215,\"{'Gd': 1.0, 'P': 2.0, 'Ru': 2.0}\",\"('Gd', 'P', 'Ru')\",OTHERS,False\nmp-755893,\"{'Ca': 4.0, 'Bi': 4.0, 'O': 12.0}\",\"('Bi', 'Ca', 'O')\",OTHERS,False\nmp-1238269,\"{'Tl': 8.0, 'C': 2.0, 'O': 10.0}\",\"('C', 'O', 'Tl')\",OTHERS,False\nmp-983565,\"{'Cu': 2.0, 'B': 2.0, 'Se': 4.0}\",\"('B', 'Cu', 'Se')\",OTHERS,False\nmp-353,\"{'O': 2.0, 'Ag': 4.0}\",\"('Ag', 'O')\",OTHERS,False\nmp-1196047,\"{'Cs': 4.0, 'V': 8.0, 'Sb': 4.0, 'O': 32.0}\",\"('Cs', 'O', 'Sb', 'V')\",OTHERS,False\nAl 72.5 Pd 27.5,\"{'Al': 72.5, 'Pd': 27.5}\",\"('Al', 'Pd')\",AC,False\nmp-556666,\"{'Ca': 4.0, 'Bi': 4.0, 'C': 4.0, 'O': 16.0, 'F': 4.0}\",\"('Bi', 'C', 'Ca', 'F', 'O')\",OTHERS,False\nmvc-6574,\"{'Y': 2.0, 'Fe': 6.0, 'F': 30.0}\",\"('F', 'Fe', 'Y')\",OTHERS,False\nmp-17033,\"{'F': 24.0, 'Al': 4.0, 'Pd': 4.0, 'Cs': 4.0}\",\"('Al', 'Cs', 'F', 'Pd')\",OTHERS,False\nmp-774402,\"{'V': 1.0, 'Cr': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'O', 'P', 'V')\",OTHERS,False\nmp-1078086,\"{'In': 2.0, 'Ni': 3.0, 'Se': 2.0}\",\"('In', 'Ni', 'Se')\",OTHERS,False\nmp-4057,\"{'B': 4.0, 'F': 16.0, 'Cs': 4.0}\",\"('B', 'Cs', 'F')\",OTHERS,False\nmp-1228779,\"{'Ba': 8.0, 'Ca': 5.0, 'Mn': 3.0, 'Fe': 8.0, 'F': 56.0}\",\"('Ba', 'Ca', 'F', 'Fe', 'Mn')\",OTHERS,False\nmp-984356,\"{'Cs': 1.0, 'Ir': 1.0, 'O': 3.0}\",\"('Cs', 'Ir', 'O')\",OTHERS,False\nmp-1005693,\"{'Sm': 2.0, 'In': 1.0, 'Hg': 1.0}\",\"('Hg', 'In', 'Sm')\",OTHERS,False\nmp-1186252,\"{'Nd': 4.0, 'Mg': 2.0}\",\"('Mg', 'Nd')\",OTHERS,False\nmp-754349,\"{'Gd': 2.0, 'O': 2.0, 'F': 2.0}\",\"('F', 'Gd', 'O')\",OTHERS,False\nmp-1223232,\"{'La': 4.0, 'Ce': 1.0, 'Zr': 3.0, 'O': 14.0}\",\"('Ce', 'La', 'O', 'Zr')\",OTHERS,False\nmp-1224476,\"{'Ho': 6.0, 'Ni': 4.0, 'Ru': 8.0}\",\"('Ho', 'Ni', 'Ru')\",OTHERS,False\nmp-1079997,\"{'V': 1.0, 'Pt': 8.0}\",\"('Pt', 'V')\",OTHERS,False\nmp-1207693,\"{'Yb': 12.0, 'Al': 12.0, 'Cr': 8.0, 'O': 48.0}\",\"('Al', 'Cr', 'O', 'Yb')\",OTHERS,False\nmp-25969,\"{'Li': 2.0, 'O': 24.0, 'P': 6.0, 'Mn': 8.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1223665,\"{'Ir': 1.0, 'Pt': 1.0}\",\"('Ir', 'Pt')\",OTHERS,False\nmp-1075406,\"{'Mg': 10.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-553880,\"{'Zn': 26.0, 'S': 26.0}\",\"('S', 'Zn')\",OTHERS,False\nmp-8578,\"{'C': 1.0, 'Sc': 3.0, 'In': 1.0}\",\"('C', 'In', 'Sc')\",OTHERS,False\nmp-1079654,\"{'Sm': 2.0, 'Mn': 1.0, 'Ga': 6.0}\",\"('Ga', 'Mn', 'Sm')\",OTHERS,False\nmp-849527,\"{'Rb': 12.0, 'In': 4.0, 'O': 12.0}\",\"('In', 'O', 'Rb')\",OTHERS,False\nmp-1246754,\"{'Li': 24.0, 'Ir': 8.0, 'N': 16.0}\",\"('Ir', 'Li', 'N')\",OTHERS,False\nmp-1986,\"{'Zn': 1.0, 'O': 1.0}\",\"('O', 'Zn')\",OTHERS,False\nmp-15886,\"{'Na': 4.0, 'S': 6.0, 'U': 2.0}\",\"('Na', 'S', 'U')\",OTHERS,False\nmp-571479,\"{'Yb': 8.0, 'Ba': 8.0, 'Sn': 24.0}\",\"('Ba', 'Sn', 'Yb')\",OTHERS,False\nmp-1218879,\"{'Sr': 4.0, 'Al': 4.0, 'Si': 2.0, 'O': 14.0}\",\"('Al', 'O', 'Si', 'Sr')\",OTHERS,False\nmp-677780,\"{'Ca': 4.0, 'Mg': 2.0, 'Si': 4.0, 'O': 14.0}\",\"('Ca', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1228432,\"{'Ba': 8.0, 'Ta': 2.0, 'Ru': 3.0, 'Br': 2.0, 'O': 18.0}\",\"('Ba', 'Br', 'O', 'Ru', 'Ta')\",OTHERS,False\nmp-1102399,\"{'Fe': 2.0, 'P': 2.0, 'O': 7.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-775340,\"{'Li': 4.0, 'Cr': 2.0, 'Si': 12.0, 'O': 30.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,False\nmp-556884,\"{'Ca': 12.0, 'Si': 24.0, 'N': 24.0, 'O': 24.0}\",\"('Ca', 'N', 'O', 'Si')\",OTHERS,False\nmp-6250,\"{'O': 20.0, 'Zn': 4.0, 'Ba': 4.0, 'Tm': 8.0}\",\"('Ba', 'O', 'Tm', 'Zn')\",OTHERS,False\nmp-1194202,\"{'Ba': 2.0, 'Ho': 2.0, 'Fe': 8.0, 'O': 14.0}\",\"('Ba', 'Fe', 'Ho', 'O')\",OTHERS,False\nmp-1101361,\"{'V': 4.0, 'Co': 1.0, 'Cu': 1.0, 'O': 12.0}\",\"('Co', 'Cu', 'O', 'V')\",OTHERS,False\nmp-631308,\"{'Sn': 1.0, 'Ir': 1.0, 'Se': 2.0}\",\"('Ir', 'Se', 'Sn')\",OTHERS,False\nmp-866207,\"{'Lu': 1.0, 'Cd': 1.0, 'Pd': 2.0}\",\"('Cd', 'Lu', 'Pd')\",OTHERS,False\nmvc-4607,\"{'Mo': 4.0, 'O': 10.0}\",\"('Mo', 'O')\",OTHERS,False\nmp-773785,\"{'K': 8.0, 'Te': 4.0, 'O': 16.0}\",\"('K', 'O', 'Te')\",OTHERS,False\nmp-1105840,\"{'Nb': 6.0, 'V': 2.0, 'Se': 12.0}\",\"('Nb', 'Se', 'V')\",OTHERS,False\nmp-694564,\"{'Li': 2.0, 'Fe': 1.0, 'P': 8.0, 'O': 24.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-772609,\"{'La': 8.0, 'Zn': 8.0, 'O': 20.0}\",\"('La', 'O', 'Zn')\",OTHERS,False\nmp-29644,\"{'Ge': 1.0, 'Bi': 4.0, 'Te': 7.0}\",\"('Bi', 'Ge', 'Te')\",OTHERS,False\nmp-1100537,\"{'Li': 9.0, 'Mn': 7.0, 'O': 16.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-649632,\"{'K': 4.0, 'Co': 4.0, 'C': 16.0, 'O': 16.0}\",\"('C', 'Co', 'K', 'O')\",OTHERS,False\nmp-983509,\"{'Na': 6.0, 'Cd': 2.0}\",\"('Cd', 'Na')\",OTHERS,False\nmp-850185,\"{'Li': 6.0, 'Bi': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Bi', 'Li', 'O', 'P')\",OTHERS,False\nmp-755593,\"{'Li': 8.0, 'Co': 2.0, 'O': 6.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-755992,\"{'Fe': 6.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-767409,\"{'Li': 5.0, 'Sb': 1.0, 'S': 1.0}\",\"('Li', 'S', 'Sb')\",OTHERS,False\nmp-1176896,\"{'Li': 12.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1020631,\"{'Zn': 2.0, 'Ge': 2.0, 'O': 6.0}\",\"('Ge', 'O', 'Zn')\",OTHERS,False\nmp-1184567,\"{'Hf': 2.0, 'Tc': 1.0, 'Ir': 1.0}\",\"('Hf', 'Ir', 'Tc')\",OTHERS,False\nmp-1184119,\"{'Cu': 1.0, 'Pd': 3.0}\",\"('Cu', 'Pd')\",OTHERS,False\nmp-675212,\"{'Li': 3.0, 'W': 8.0, 'O': 24.0}\",\"('Li', 'O', 'W')\",OTHERS,False\nmp-1178257,\"{'Fe': 7.0, 'P': 8.0, 'O': 32.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-862870,\"{'Li': 1.0, 'Tc': 1.0, 'O': 3.0}\",\"('Li', 'O', 'Tc')\",OTHERS,False\nmp-554411,\"{'Cs': 4.0, 'Mn': 4.0, 'F': 16.0}\",\"('Cs', 'F', 'Mn')\",OTHERS,False\nmp-4962,\"{'S': 2.0, 'Co': 2.0, 'Sb': 2.0}\",\"('Co', 'S', 'Sb')\",OTHERS,False\nmp-18761,\"{'O': 8.0, 'K': 3.0, 'V': 3.0}\",\"('K', 'O', 'V')\",OTHERS,False\nmp-1177877,\"{'Li': 2.0, 'Mn': 1.0, 'V': 1.0, 'P': 2.0, 'O': 8.0, 'F': 2.0}\",\"('F', 'Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-1173697,\"{'Na': 2.0, 'La': 4.0, 'Ti': 4.0, 'Mn': 2.0, 'O': 18.0}\",\"('La', 'Mn', 'Na', 'O', 'Ti')\",OTHERS,False\nmp-989511,\"{'Cs': 2.0, 'As': 1.0, 'Br': 1.0, 'Cl': 6.0}\",\"('As', 'Br', 'Cl', 'Cs')\",OTHERS,False\nmp-1222477,\"{'Li': 6.0, 'V': 6.0, 'Zn': 6.0, 'O': 24.0}\",\"('Li', 'O', 'V', 'Zn')\",OTHERS,False\nmp-720295,\"{'U': 4.0, 'H': 40.0, 'N': 8.0, 'O': 28.0}\",\"('H', 'N', 'O', 'U')\",OTHERS,False\nmp-1193284,\"{'Nd': 4.0, 'Mo': 4.0, 'Br': 4.0, 'O': 16.0}\",\"('Br', 'Mo', 'Nd', 'O')\",OTHERS,False\nmp-1246767,\"{'Ga': 20.0, 'Ge': 12.0, 'N': 36.0}\",\"('Ga', 'Ge', 'N')\",OTHERS,False\nmp-972095,\"{'Zn': 6.0, 'Hg': 2.0}\",\"('Hg', 'Zn')\",OTHERS,False\nmp-753268,\"{'Li': 6.0, 'Cu': 1.0, 'F': 8.0}\",\"('Cu', 'F', 'Li')\",OTHERS,False\nmp-1211810,\"{'K': 2.0, 'Li': 2.0, 'Tm': 4.0, 'Mo': 8.0, 'O': 32.0}\",\"('K', 'Li', 'Mo', 'O', 'Tm')\",OTHERS,False\nmp-1217538,\"{'Te': 2.0, 'W': 2.0, 'N': 2.0, 'O': 15.0}\",\"('N', 'O', 'Te', 'W')\",OTHERS,False\nmp-1018140,\"{'Mg': 1.0, 'Ni': 1.0}\",\"('Mg', 'Ni')\",OTHERS,False\nmp-1218068,\"{'Sr': 2.0, 'Pr': 2.0, 'Zn': 2.0, 'Ru': 2.0, 'O': 12.0}\",\"('O', 'Pr', 'Ru', 'Sr', 'Zn')\",OTHERS,False\nmp-1192619,{'C': 29.0},\"('C',)\",OTHERS,False\nmp-1229303,\"{'Ba': 10.0, 'Gd': 1.0, 'Y': 4.0, 'Cu': 15.0, 'O': 35.0}\",\"('Ba', 'Cu', 'Gd', 'O', 'Y')\",OTHERS,False\nmp-1194450,\"{'Ti': 6.0, 'Al': 16.0, 'Rh': 7.0}\",\"('Al', 'Rh', 'Ti')\",OTHERS,False\nmp-1211025,\"{'Na': 6.0, 'Fe': 6.0, 'B': 6.0, 'P': 12.0, 'O': 66.0}\",\"('B', 'Fe', 'Na', 'O', 'P')\",OTHERS,False\nmp-755878,\"{'Cu': 6.0, 'O': 1.0, 'F': 11.0}\",\"('Cu', 'F', 'O')\",OTHERS,False\nmp-19954,\"{'Al': 16.0, 'Cr': 10.0}\",\"('Al', 'Cr')\",OTHERS,False\nmp-20991,\"{'O': 6.0, 'Ba': 2.0, 'Pb': 2.0}\",\"('Ba', 'O', 'Pb')\",OTHERS,False\nmp-1223258,\"{'La': 2.0, 'Si': 3.0, 'Ni': 1.0}\",\"('La', 'Ni', 'Si')\",OTHERS,False\nmp-756391,\"{'Mn': 3.0, 'Ni': 1.0, 'P': 4.0, 'O': 16.0}\",\"('Mn', 'Ni', 'O', 'P')\",OTHERS,False\nmp-982013,\"{'Sr': 6.0, 'Tm': 2.0}\",\"('Sr', 'Tm')\",OTHERS,False\nmp-780658,\"{'Li': 2.0, 'Mn': 6.0, 'P': 12.0, 'O': 40.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-755619,\"{'Sn': 4.0, 'P': 4.0, 'O': 14.0}\",\"('O', 'P', 'Sn')\",OTHERS,False\nmp-1195322,\"{'Rb': 2.0, 'Pd': 1.0, 'S': 8.0, 'O': 26.0}\",\"('O', 'Pd', 'Rb', 'S')\",OTHERS,False\nmp-20424,\"{'C': 1.0, 'Mg': 1.0, 'Co': 3.0}\",\"('C', 'Co', 'Mg')\",OTHERS,False\nmp-861937,\"{'Ba': 2.0, 'As': 1.0, 'Au': 1.0}\",\"('As', 'Au', 'Ba')\",OTHERS,False\nmp-3211,\"{'O': 2.0, 'S': 1.0, 'Nd': 2.0}\",\"('Nd', 'O', 'S')\",OTHERS,False\nmp-1194001,\"{'Pr': 8.0, 'P': 2.0, 'Cl': 2.0, 'O': 16.0}\",\"('Cl', 'O', 'P', 'Pr')\",OTHERS,False\nmp-698063,\"{'Na': 8.0, 'P': 8.0, 'H': 8.0, 'O': 28.0}\",\"('H', 'Na', 'O', 'P')\",OTHERS,False\nmp-1147614,\"{'Li': 24.0, 'Zn': 12.0, 'P': 16.0, 'S': 64.0}\",\"('Li', 'P', 'S', 'Zn')\",OTHERS,False\nmp-1187062,\"{'Th': 6.0, 'Se': 2.0}\",\"('Se', 'Th')\",OTHERS,False\nmp-1208652,\"{'Sr': 2.0, 'Ge': 2.0, 'O': 8.0}\",\"('Ge', 'O', 'Sr')\",OTHERS,False\nmp-1112033,\"{'K': 2.0, 'Hg': 1.0, 'Bi': 1.0, 'Cl': 6.0}\",\"('Bi', 'Cl', 'Hg', 'K')\",OTHERS,False\nmp-1114287,\"{'K': 2.0, 'Ta': 1.0, 'Ag': 1.0, 'F': 6.0}\",\"('Ag', 'F', 'K', 'Ta')\",OTHERS,False\nmp-1246307,\"{'Mg': 22.0, 'C': 4.0, 'N': 20.0}\",\"('C', 'Mg', 'N')\",OTHERS,False\nmvc-13239,\"{'Ti': 2.0, 'F': 8.0}\",\"('F', 'Ti')\",OTHERS,False\nmp-29403,\"{'Cu': 1.0, 'Ga': 1.0, 'I': 4.0}\",\"('Cu', 'Ga', 'I')\",OTHERS,False\nmp-758047,\"{'Mn': 7.0, 'Co': 1.0, 'P': 12.0, 'O': 48.0}\",\"('Co', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1213387,\"{'Dy': 30.0, 'C': 40.0}\",\"('C', 'Dy')\",OTHERS,False\nmp-1184761,\"{'Ir': 3.0, 'Os': 1.0}\",\"('Ir', 'Os')\",OTHERS,False\nmp-757647,\"{'Li': 8.0, 'Mn': 8.0, 'Si': 24.0, 'O': 60.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1025495,\"{'Nd': 2.0, 'Si': 4.0, 'Rh': 2.0}\",\"('Nd', 'Rh', 'Si')\",OTHERS,False\nmp-1096039,\"{'Mn': 1.0, 'Ag': 1.0, 'Pd': 2.0}\",\"('Ag', 'Mn', 'Pd')\",OTHERS,False\nmp-1176979,\"{'Li': 6.0, 'Fe': 1.0, 'S': 4.0}\",\"('Fe', 'Li', 'S')\",OTHERS,False\nmp-567329,\"{'Cr': 4.0, 'Hg': 24.0, 'As': 16.0, 'Br': 28.0}\",\"('As', 'Br', 'Cr', 'Hg')\",OTHERS,False\nmp-1218483,\"{'Sr': 4.0, 'Zn': 1.0, 'Cu': 1.0, 'W': 2.0, 'O': 12.0}\",\"('Cu', 'O', 'Sr', 'W', 'Zn')\",OTHERS,False\nmp-1179593,\"{'Sr': 12.0, 'S': 24.0, 'O': 120.0}\",\"('O', 'S', 'Sr')\",OTHERS,False\nmp-1176833,\"{'Li': 8.0, 'Mn': 1.0, 'Fe': 7.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1219260,\"{'Sm': 2.0, 'Fe': 17.0, 'C': 1.0, 'N': 1.0}\",\"('C', 'Fe', 'N', 'Sm')\",OTHERS,False\nmvc-2597,\"{'Ba': 2.0, 'Tl': 1.0, 'Bi': 2.0, 'O': 7.0}\",\"('Ba', 'Bi', 'O', 'Tl')\",OTHERS,False\nmp-1100539,\"{'Li': 9.0, 'Mn': 7.0, 'O': 16.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-754605,\"{'Li': 2.0, 'Lu': 2.0, 'O': 4.0}\",\"('Li', 'Lu', 'O')\",OTHERS,False\nmp-779011,\"{'Li': 6.0, 'Mn': 1.0, 'Fe': 5.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1178835,\"{'V': 4.0, 'Re': 4.0, 'O': 22.0}\",\"('O', 'Re', 'V')\",OTHERS,False\nmp-779877,\"{'Li': 6.0, 'Mn': 1.0, 'Fe': 5.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1084832,\"{'Fe': 5.0, 'Co': 3.0}\",\"('Co', 'Fe')\",OTHERS,False\nmp-554174,\"{'Ca': 8.0, 'P': 8.0, 'H': 32.0, 'O': 44.0}\",\"('Ca', 'H', 'O', 'P')\",OTHERS,False\nmp-775320,\"{'Li': 4.0, 'V': 3.0, 'O': 8.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-655591,\"{'Li': 2.0, 'B': 26.0, 'C': 4.0}\",\"('B', 'C', 'Li')\",OTHERS,False\nmp-976055,\"{'Li': 3.0, 'In': 1.0}\",\"('In', 'Li')\",OTHERS,False\nmp-768905,\"{'Li': 24.0, 'Mn': 5.0, 'Cr': 7.0, 'O': 36.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1175170,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-23737,\"{'H': 3.0, 'Mg': 1.0, 'K': 1.0}\",\"('H', 'K', 'Mg')\",OTHERS,False\nmp-26750,\"{'Fe': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-1188053,\"{'Zr': 6.0, 'Ta': 2.0}\",\"('Ta', 'Zr')\",OTHERS,False\nAu 42 In 42 Yb 16,\"{'Au': 42.0, 'In': 42.0, 'Yb': 16.0}\",\"('Au', 'In', 'Yb')\",AC,False\nmp-753638,\"{'Li': 3.0, 'Nb': 2.0, 'Fe': 3.0, 'O': 10.0}\",\"('Fe', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-770852,\"{'Li': 4.0, 'Ti': 2.0, 'Ni': 4.0, 'O': 10.0}\",\"('Li', 'Ni', 'O', 'Ti')\",OTHERS,False\nmp-567705,\"{'Ti': 4.0, 'Al': 8.0}\",\"('Al', 'Ti')\",OTHERS,False\nmp-15793,\"{'Li': 1.0, 'Se': 2.0, 'Tb': 1.0}\",\"('Li', 'Se', 'Tb')\",OTHERS,False\nmvc-7052,\"{'Mo': 2.0, 'S': 4.0}\",\"('Mo', 'S')\",OTHERS,False\nmp-1206907,\"{'Tl': 1.0, 'N': 1.0}\",\"('N', 'Tl')\",OTHERS,False\nmp-1093731,\"{'Ti': 2.0, 'Sn': 1.0, 'Mo': 1.0}\",\"('Mo', 'Sn', 'Ti')\",OTHERS,False\nmp-759907,\"{'Li': 2.0, 'Fe': 3.0, 'Cu': 1.0, 'O': 8.0}\",\"('Cu', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1039319,\"{'Mg': 8.0, 'Cd': 4.0}\",\"('Cd', 'Mg')\",OTHERS,False\nmp-673633,\"{'In': 4.0, 'S': 6.0}\",\"('In', 'S')\",OTHERS,False\nmp-763247,\"{'Li': 2.0, 'V': 2.0, 'Si': 2.0, 'O': 10.0}\",\"('Li', 'O', 'Si', 'V')\",OTHERS,False\nmp-1247354,\"{'Re': 2.0, 'C': 12.0, 'N': 18.0}\",\"('C', 'N', 'Re')\",OTHERS,False\nmp-1224733,\"{'Gd': 2.0, 'Zn': 1.0, 'Ag': 1.0}\",\"('Ag', 'Gd', 'Zn')\",OTHERS,False\nmp-1177532,\"{'Li': 6.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1226389,\"{'Cr': 1.0, 'O': 3.0, 'F': 3.0}\",\"('Cr', 'F', 'O')\",OTHERS,False\nmp-1184550,\"{'Ge': 2.0, 'C': 2.0}\",\"('C', 'Ge')\",OTHERS,False\nmp-756763,\"{'Li': 3.0, 'Cr': 1.0, 'Co': 4.0, 'O': 8.0}\",\"('Co', 'Cr', 'Li', 'O')\",OTHERS,False\nmp-1220146,\"{'Ni': 16.0, 'Bi': 16.0, 'S': 2.0, 'I': 4.0}\",\"('Bi', 'I', 'Ni', 'S')\",OTHERS,False\nmp-767597,\"{'Li': 4.0, 'Mn': 4.0, 'F': 20.0}\",\"('F', 'Li', 'Mn')\",OTHERS,False\nmp-1199056,\"{'Rb': 16.0, 'Ge': 16.0}\",\"('Ge', 'Rb')\",OTHERS,False\nmp-865681,\"{'Ti': 1.0, 'Si': 1.0, 'Ru': 2.0}\",\"('Ru', 'Si', 'Ti')\",OTHERS,False\nmp-1093540,\"{'Li': 2.0, 'Ga': 1.0, 'Bi': 1.0}\",\"('Bi', 'Ga', 'Li')\",OTHERS,False\nmp-1183738,\"{'Ce': 1.0, 'Sb': 3.0}\",\"('Ce', 'Sb')\",OTHERS,False\nmp-1226019,\"{'Co': 5.0, 'Ni': 1.0, 'S': 8.0}\",\"('Co', 'Ni', 'S')\",OTHERS,False\nmp-653887,\"{'Co': 16.0, 'Pb': 4.0, 'C': 64.0, 'O': 64.0}\",\"('C', 'Co', 'O', 'Pb')\",OTHERS,False\nmp-759662,\"{'V': 6.0, 'O': 9.0, 'F': 3.0}\",\"('F', 'O', 'V')\",OTHERS,False\nmp-1183523,\"{'Ca': 6.0, 'Dy': 2.0}\",\"('Ca', 'Dy')\",OTHERS,False\nmp-1208294,\"{'U': 4.0, 'Cl': 8.0}\",\"('Cl', 'U')\",OTHERS,False\nmp-1025231,\"{'Pr': 2.0, 'Cr': 1.0, 'S': 4.0}\",\"('Cr', 'Pr', 'S')\",OTHERS,False\nmp-1205187,\"{'Sr': 2.0, 'H': 16.0, 'Cl': 4.0, 'O': 24.0}\",\"('Cl', 'H', 'O', 'Sr')\",OTHERS,False\nZn 75 Sc 15 Fe 10,\"{'Zn': 75.0, 'Sc': 15.0, 'Fe': 10.0}\",\"('Fe', 'Sc', 'Zn')\",QC,False\nmp-778861,\"{'Li': 4.0, 'V': 8.0, 'O': 4.0, 'F': 20.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-626216,\"{'Sr': 1.0, 'H': 16.0, 'O': 10.0}\",\"('H', 'O', 'Sr')\",OTHERS,False\nmp-1196708,\"{'Ge': 14.0, 'N': 4.0, 'O': 30.0}\",\"('Ge', 'N', 'O')\",OTHERS,False\nmp-1036480,\"{'Rb': 1.0, 'Mg': 14.0, 'Al': 1.0, 'O': 16.0}\",\"('Al', 'Mg', 'O', 'Rb')\",OTHERS,False\nmp-775774,\"{'Ag': 2.0, 'Bi': 2.0, 'O': 6.0}\",\"('Ag', 'Bi', 'O')\",OTHERS,False\nmp-568998,\"{'Cu': 6.0, 'Se': 6.0}\",\"('Cu', 'Se')\",OTHERS,False\nmp-1102248,\"{'Tm': 4.0, 'Al': 4.0, 'Au': 4.0}\",\"('Al', 'Au', 'Tm')\",OTHERS,False\nmp-15559,\"{'S': 32.0, 'K': 4.0, 'Sb': 20.0}\",\"('K', 'S', 'Sb')\",OTHERS,False\nmp-780798,\"{'Li': 1.0, 'Mn': 2.0, 'Cr': 2.0, 'O': 8.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-696416,\"{'Na': 2.0, 'Si': 6.0, 'B': 2.0, 'O': 16.0}\",\"('B', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1033646,\"{'Rb': 1.0, 'Hf': 1.0, 'Mg': 6.0, 'O': 7.0}\",\"('Hf', 'Mg', 'O', 'Rb')\",OTHERS,False\nmp-1207390,\"{'Zn': 2.0, 'Pt': 6.0, 'O': 8.0}\",\"('O', 'Pt', 'Zn')\",OTHERS,False\nmp-756050,\"{'Ta': 4.0, 'Cu': 4.0, 'O': 12.0}\",\"('Cu', 'O', 'Ta')\",OTHERS,False\nmp-558579,\"{'Tl': 4.0, 'H': 4.0, 'C': 4.0, 'O': 8.0}\",\"('C', 'H', 'O', 'Tl')\",OTHERS,False\nmp-1029952,\"{'Te': 6.0, 'Mo': 2.0, 'W': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Te', 'W')\",OTHERS,False\nmp-1183784,\"{'Ce': 3.0, 'Cl': 1.0}\",\"('Ce', 'Cl')\",OTHERS,False\nmp-768257,\"{'Na': 8.0, 'Bi': 4.0, 'C': 8.0, 'S': 2.0, 'O': 32.0}\",\"('Bi', 'C', 'Na', 'O', 'S')\",OTHERS,False\nmp-763176,\"{'Mn': 6.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-1036441,\"{'Cs': 1.0, 'Mg': 14.0, 'Mn': 1.0, 'O': 16.0}\",\"('Cs', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-604147,\"{'Na': 8.0, 'Li': 4.0, 'H': 24.0, 'N': 12.0}\",\"('H', 'Li', 'N', 'Na')\",OTHERS,False\nmp-559918,\"{'Ti': 8.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cu', 'S', 'Ti')\",OTHERS,False\nmp-1096643,\"{'Li': 1.0, 'Tl': 2.0, 'Pd': 1.0}\",\"('Li', 'Pd', 'Tl')\",OTHERS,False\nmp-1244813,\"{'Y': 4.0, 'V': 13.0, 'Si': 2.0, 'Sb': 2.0, 'O': 28.0}\",\"('O', 'Sb', 'Si', 'V', 'Y')\",OTHERS,False\nmp-560159,\"{'B': 12.0, 'H': 42.0, 'C': 10.0, 'N': 4.0, 'O': 2.0}\",\"('B', 'C', 'H', 'N', 'O')\",OTHERS,False\nmp-1196513,\"{'Sc': 12.0, 'Ge': 24.0, 'Ru': 12.0}\",\"('Ge', 'Ru', 'Sc')\",OTHERS,False\nmp-541041,\"{'Nd': 4.0, 'Ag': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Ag', 'Nd', 'O', 'P')\",OTHERS,False\nmp-1019586,\"{'Ca': 2.0, 'Al': 4.0, 'Si': 2.0, 'O': 12.0}\",\"('Al', 'Ca', 'O', 'Si')\",OTHERS,False\nmp-557299,\"{'Nd': 12.0, 'Mo': 4.0, 'O': 28.0}\",\"('Mo', 'Nd', 'O')\",OTHERS,False\nmp-1095875,\"{'Sc': 1.0, 'Zn': 1.0, 'Ir': 2.0}\",\"('Ir', 'Sc', 'Zn')\",OTHERS,False\nmp-504627,\"{'Er': 8.0, 'Ni': 2.0, 'B': 26.0}\",\"('B', 'Er', 'Ni')\",OTHERS,False\nmp-779250,\"{'Li': 16.0, 'Fe': 8.0, 'B': 8.0, 'O': 32.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-757415,\"{'Na': 8.0, 'Fe': 4.0, 'O': 8.0}\",\"('Fe', 'Na', 'O')\",OTHERS,False\nmp-849411,\"{'Li': 8.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-27943,\"{'W': 6.0, 'N': 3.0}\",\"('N', 'W')\",OTHERS,False\nmp-758806,\"{'B': 80.0, 'P': 16.0, 'H': 64.0, 'Cl': 16.0}\",\"('B', 'Cl', 'H', 'P')\",OTHERS,False\nmp-23037,\"{'Cs': 1.0, 'Pb': 1.0, 'Cl': 3.0}\",\"('Cl', 'Cs', 'Pb')\",OTHERS,False\nmp-775921,\"{'Li': 6.0, 'V': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1213696,\"{'Cs': 4.0, 'Co': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Co', 'Cs', 'O', 'P')\",OTHERS,False\nmp-861913,\"{'Li': 1.0, 'Dy': 2.0, 'Al': 1.0}\",\"('Al', 'Dy', 'Li')\",OTHERS,False\nmp-27897,\"{'N': 8.0, 'O': 16.0, 'Ba': 4.0}\",\"('Ba', 'N', 'O')\",OTHERS,False\nmp-1217682,\"{'Tb': 2.0, 'Hf': 1.0, 'Al': 9.0}\",\"('Al', 'Hf', 'Tb')\",OTHERS,False\nmp-1208703,\"{'Sr': 4.0, 'Cr': 3.0, 'O': 10.0}\",\"('Cr', 'O', 'Sr')\",OTHERS,False\nmp-7806,\"{'P': 4.0, 'Cr': 12.0}\",\"('Cr', 'P')\",OTHERS,False\nmp-1029155,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-759735,\"{'Li': 4.0, 'Bi': 2.0, 'P': 10.0, 'O': 30.0}\",\"('Bi', 'Li', 'O', 'P')\",OTHERS,False\nmp-568357,\"{'K': 8.0, 'La': 12.0, 'Os': 2.0, 'I': 28.0}\",\"('I', 'K', 'La', 'Os')\",OTHERS,False\nmp-764248,\"{'Li': 4.0, 'V': 2.0, 'Cr': 2.0, 'P': 8.0, 'O': 28.0}\",\"('Cr', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1105271,\"{'Mn': 4.0, 'Bi': 4.0, 'O': 12.0}\",\"('Bi', 'Mn', 'O')\",OTHERS,False\nmvc-2146,\"{'Zn': 4.0, 'Co': 2.0, 'N': 4.0}\",\"('Co', 'N', 'Zn')\",OTHERS,False\nmp-1101240,\"{'V': 3.0, 'Co': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Co', 'O', 'P', 'V')\",OTHERS,False\nmp-5473,\"{'Mg': 4.0, 'Si': 4.0, 'Ca': 4.0}\",\"('Ca', 'Mg', 'Si')\",OTHERS,False\nmp-977415,\"{'Ho': 1.0, 'Cd': 1.0, 'Au': 2.0}\",\"('Au', 'Cd', 'Ho')\",OTHERS,False\nmp-1209209,\"{'Sb': 4.0, 'N': 1.0, 'F': 13.0}\",\"('F', 'N', 'Sb')\",OTHERS,False\nmp-1218178,\"{'Sr': 2.0, 'La': 2.0, 'Ni': 2.0, 'O': 8.0}\",\"('La', 'Ni', 'O', 'Sr')\",OTHERS,False\nmp-559227,\"{'Rb': 4.0, 'Ge': 4.0, 'Bi': 4.0, 'S': 16.0}\",\"('Bi', 'Ge', 'Rb', 'S')\",OTHERS,False\nmp-1222934,\"{'La': 2.0, 'Ge': 2.0, 'Pd': 2.0}\",\"('Ge', 'La', 'Pd')\",OTHERS,False\nmp-1093902,\"{'Ba': 1.0, 'Mg': 1.0, 'Tl': 2.0}\",\"('Ba', 'Mg', 'Tl')\",OTHERS,False\nmp-15988,\"{'Li': 2.0, 'Cu': 1.0, 'Sb': 1.0}\",\"('Cu', 'Li', 'Sb')\",OTHERS,False\nmp-1247705,\"{'Sr': 4.0, 'Ca': 28.0, 'Mn': 24.0, 'Al': 8.0, 'O': 92.0}\",\"('Al', 'Ca', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1111896,\"{'Na': 3.0, 'Er': 1.0, 'Cl': 6.0}\",\"('Cl', 'Er', 'Na')\",OTHERS,False\nmp-1246758,\"{'Fe': 2.0, 'Cu': 1.0, 'N': 2.0}\",\"('Cu', 'Fe', 'N')\",OTHERS,False\nmp-27351,\"{'N': 12.0, 'Cl': 16.0, 'Sb': 4.0}\",\"('Cl', 'N', 'Sb')\",OTHERS,False\nmp-684013,\"{'Ba': 4.0, 'In': 26.0, 'Ir': 8.0}\",\"('Ba', 'In', 'Ir')\",OTHERS,False\nmp-780525,\"{'Mn': 12.0, 'O': 2.0, 'F': 22.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmvc-5035,\"{'Zn': 4.0, 'Te': 2.0, 'W': 2.0, 'O': 12.0}\",\"('O', 'Te', 'W', 'Zn')\",OTHERS,False\nmp-752975,\"{'Fe': 4.0, 'O': 4.0, 'F': 4.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1093607,\"{'Hf': 2.0, 'Mn': 1.0, 'Co': 1.0}\",\"('Co', 'Hf', 'Mn')\",OTHERS,False\nmp-1186211,\"{'Na': 2.0, 'Zn': 6.0}\",\"('Na', 'Zn')\",OTHERS,False\nmp-1113281,\"{'Cs': 2.0, 'Al': 1.0, 'In': 1.0, 'Br': 6.0}\",\"('Al', 'Br', 'Cs', 'In')\",OTHERS,False\nmp-9952,\"{'Zn': 2.0, 'Sb': 6.0, 'Hf': 10.0}\",\"('Hf', 'Sb', 'Zn')\",OTHERS,False\nmp-669497,\"{'Dy': 20.0, 'Cl': 44.0}\",\"('Cl', 'Dy')\",OTHERS,False\nmp-10436,\"{'Al': 2.0, 'Si': 2.0, 'Tb': 1.0}\",\"('Al', 'Si', 'Tb')\",OTHERS,False\nmp-1113018,\"{'Cs': 2.0, 'Li': 1.0, 'Dy': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'Dy', 'Li')\",OTHERS,False\nmp-1195438,\"{'Al': 8.0, 'B': 56.0, 'Pd': 120.0}\",\"('Al', 'B', 'Pd')\",OTHERS,False\nmp-1227605,\"{'Bi': 12.0, 'I': 6.0, 'Br': 6.0}\",\"('Bi', 'Br', 'I')\",OTHERS,False\nmp-1225536,\"{'Dy': 1.0, 'Tm': 1.0, 'Mn': 4.0}\",\"('Dy', 'Mn', 'Tm')\",OTHERS,False\nmp-19752,\"{'O': 12.0, 'P': 3.0, 'Fe': 3.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmvc-11245,\"{'Zn': 2.0, 'Fe': 4.0, 'S': 8.0}\",\"('Fe', 'S', 'Zn')\",OTHERS,False\nmp-3415,\"{'Si': 2.0, 'Ru': 2.0, 'Yb': 1.0}\",\"('Ru', 'Si', 'Yb')\",OTHERS,False\nmp-1101531,\"{'Li': 18.0, 'Co': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,False\nmp-570019,\"{'Cd': 8.0, 'I': 16.0}\",\"('Cd', 'I')\",OTHERS,False\nmp-1096127,\"{'Y': 2.0, 'Cu': 1.0, 'Ag': 1.0}\",\"('Ag', 'Cu', 'Y')\",OTHERS,False\nmp-721699,\"{'Ca': 2.0, 'H': 32.0, 'C': 8.0, 'N': 20.0, 'O': 20.0}\",\"('C', 'Ca', 'H', 'N', 'O')\",OTHERS,False\nmp-1226086,\"{'Cr': 10.0, 'Te': 12.0}\",\"('Cr', 'Te')\",OTHERS,False\nmp-624243,\"{'Fe': 12.0, 'W': 12.0, 'C': 2.0}\",\"('C', 'Fe', 'W')\",OTHERS,False\nmp-635413,\"{'Cs': 3.0, 'Bi': 1.0}\",\"('Bi', 'Cs')\",OTHERS,False\nmp-1228266,\"{'Al': 6.0, 'C': 1.0, 'O': 7.0}\",\"('Al', 'C', 'O')\",OTHERS,False\nmp-18837,\"{'O': 8.0, 'K': 1.0, 'Sc': 1.0, 'Mo': 2.0}\",\"('K', 'Mo', 'O', 'Sc')\",OTHERS,False\nmp-1181356,\"{'Ga': 3.0, 'S': 2.0, 'O': 15.0}\",\"('Ga', 'O', 'S')\",OTHERS,False\nmp-20092,\"{'O': 6.0, 'Eu': 1.0, 'Ta': 2.0}\",\"('Eu', 'O', 'Ta')\",OTHERS,False\nmp-29351,\"{'Ba': 4.0, 'Mo': 24.0, 'O': 40.0}\",\"('Ba', 'Mo', 'O')\",OTHERS,False\nmp-24577,\"{'H': 12.0, 'O': 6.0, 'F': 6.0, 'Ni': 1.0, 'Sn': 1.0}\",\"('F', 'H', 'Ni', 'O', 'Sn')\",OTHERS,False\nmp-1195802,\"{'Sm': 8.0, 'Ge': 6.0, 'S': 24.0}\",\"('Ge', 'S', 'Sm')\",OTHERS,False\nmp-1104856,\"{'La': 6.0, 'Pt': 8.0}\",\"('La', 'Pt')\",OTHERS,False\nmp-756641,\"{'Li': 4.0, 'B': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('B', 'C', 'Li', 'O', 'P')\",OTHERS,False\nmp-1195554,\"{'Th': 4.0, 'Te': 8.0, 'Mo': 4.0, 'O': 36.0}\",\"('Mo', 'O', 'Te', 'Th')\",OTHERS,False\nmp-706986,\"{'P': 8.0, 'H': 32.0, 'N': 8.0, 'O': 24.0}\",\"('H', 'N', 'O', 'P')\",OTHERS,False\nmp-983410,\"{'Ho': 2.0, 'Cu': 1.0, 'Pd': 1.0}\",\"('Cu', 'Ho', 'Pd')\",OTHERS,False\nmp-2840,\"{'Ir': 4.0, 'Pu': 2.0}\",\"('Ir', 'Pu')\",OTHERS,False\nmvc-3757,\"{'Zn': 4.0, 'Mo': 4.0, 'F': 20.0}\",\"('F', 'Mo', 'Zn')\",OTHERS,False\nmp-558428,\"{'Ba': 9.0, 'Sc': 2.0, 'Si': 6.0, 'O': 24.0}\",\"('Ba', 'O', 'Sc', 'Si')\",OTHERS,False\nmp-771568,\"{'Sr': 4.0, 'Ca': 8.0, 'I': 24.0}\",\"('Ca', 'I', 'Sr')\",OTHERS,False\nmp-775995,\"{'Mn': 3.0, 'Cr': 1.0, 'Sn': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Cr', 'Mn', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1247545,\"{'Nb': 4.0, 'Mo': 4.0, 'N': 12.0}\",\"('Mo', 'N', 'Nb')\",OTHERS,False\nmp-774235,\"{'Li': 1.0, 'Cr': 3.0, 'O': 4.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-1102313,\"{'Yb': 4.0, 'Sb': 4.0, 'Ir': 4.0}\",\"('Ir', 'Sb', 'Yb')\",OTHERS,False\nmp-1076680,\"{'Sr': 16.0, 'Ca': 16.0, 'Ti': 8.0, 'Mn': 24.0, 'O': 80.0}\",\"('Ca', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-669550,\"{'Ce': 3.0, 'Mn': 1.0, 'Al': 24.0, 'Cu': 8.0}\",\"('Al', 'Ce', 'Cu', 'Mn')\",OTHERS,False\nmp-16721,\"{'Al': 8.0, 'Tm': 8.0}\",\"('Al', 'Tm')\",OTHERS,False\nmp-555726,\"{'Na': 4.0, 'Cl': 4.0, 'O': 12.0}\",\"('Cl', 'Na', 'O')\",OTHERS,False\nmp-1187918,\"{'Zn': 3.0, 'P': 1.0}\",\"('P', 'Zn')\",OTHERS,False\nmp-1221653,\"{'Mn': 1.0, 'Nb': 4.0, 'C': 2.0, 'S': 4.0}\",\"('C', 'Mn', 'Nb', 'S')\",OTHERS,False\nmp-1224283,\"{'Hf': 1.0, 'Ta': 1.0, 'B': 4.0}\",\"('B', 'Hf', 'Ta')\",OTHERS,False\nmp-752670,\"{'Li': 6.0, 'Fe': 2.0, 'S': 6.0}\",\"('Fe', 'Li', 'S')\",OTHERS,False\nmp-989546,\"{'Sr': 2.0, 'Tc': 2.0, 'N': 6.0}\",\"('N', 'Sr', 'Tc')\",OTHERS,False\nmp-1224413,\"{'H': 3.0, 'Pd': 4.0}\",\"('H', 'Pd')\",OTHERS,False\nmp-756396,\"{'Fe': 8.0, 'O': 12.0, 'F': 4.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1221052,\"{'Na': 14.0, 'Fe': 14.0, 'P': 12.0, 'O': 48.0, 'F': 6.0}\",\"('F', 'Fe', 'Na', 'O', 'P')\",OTHERS,False\nmp-759775,\"{'Li': 16.0, 'Mn': 18.0, 'O': 36.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1099889,\"{'Sr': 28.0, 'Ca': 4.0, 'Ti': 28.0, 'Mn': 4.0, 'O': 80.0}\",\"('Ca', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-22402,\"{'O': 14.0, 'Co': 8.0, 'In': 2.0, 'Ba': 2.0}\",\"('Ba', 'Co', 'In', 'O')\",OTHERS,False\nmp-21431,\"{'Ho': 1.0, 'In': 3.0}\",\"('Ho', 'In')\",OTHERS,False\nmp-31015,\"{'S': 1.0, 'Br': 7.0, 'Ta': 3.0}\",\"('Br', 'S', 'Ta')\",OTHERS,False\nAg 46.4 In 39.7 Gd 13.9,\"{'Ag': 46.4, 'In': 39.7, 'Gd': 13.9}\",\"('Ag', 'Gd', 'In')\",AC,False\nBe 17 Ru 3,\"{'Be': 17.0, 'Ru': 3.0}\",\"('Be', 'Ru')\",AC,False\nmp-1202437,\"{'Cs': 4.0, 'H': 8.0, 'S': 4.0, 'N': 4.0, 'O': 12.0}\",\"('Cs', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-1222178,\"{'Mn': 2.0, 'Fe': 8.0, 'Bi': 10.0, 'O': 30.0}\",\"('Bi', 'Fe', 'Mn', 'O')\",OTHERS,False\nmp-1206808,\"{'Cs': 2.0, 'Li': 1.0, 'Al': 1.0, 'F': 6.0}\",\"('Al', 'Cs', 'F', 'Li')\",OTHERS,False\nmp-510657,\"{'O': 4.0, 'V': 1.0, 'Cu': 3.0}\",\"('Cu', 'O', 'V')\",OTHERS,False\nmp-1208612,\"{'Sr': 1.0, 'Li': 1.0, 'Si': 1.0}\",\"('Li', 'Si', 'Sr')\",OTHERS,False\nmp-1212738,\"{'Gd': 12.0, 'Si': 4.0, 'Br': 12.0}\",\"('Br', 'Gd', 'Si')\",OTHERS,False\nmp-646548,\"{'Eu': 4.0, 'K': 4.0, 'As': 4.0, 'S': 12.0}\",\"('As', 'Eu', 'K', 'S')\",OTHERS,False\nmp-999439,\"{'Nb': 3.0, 'Cr': 1.0}\",\"('Cr', 'Nb')\",OTHERS,False\nmp-753930,\"{'Li': 4.0, 'V': 2.0, 'Fe': 2.0, 'O': 10.0}\",\"('Fe', 'Li', 'O', 'V')\",OTHERS,False\nmp-1105411,\"{'Li': 2.0, 'Cr': 2.0, 'Ge': 4.0, 'O': 12.0}\",\"('Cr', 'Ge', 'Li', 'O')\",OTHERS,False\nmp-30818,\"{'Li': 2.0, 'Al': 1.0, 'Pt': 1.0}\",\"('Al', 'Li', 'Pt')\",OTHERS,False\nmp-777308,\"{'Mn': 8.0, 'O': 14.0, 'F': 2.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-771140,\"{'Li': 5.0, 'Mn': 5.0, 'Sn': 2.0, 'O': 12.0}\",\"('Li', 'Mn', 'O', 'Sn')\",OTHERS,False\nmp-571438,\"{'Be': 12.0, 'V': 1.0}\",\"('Be', 'V')\",OTHERS,False\nmp-978967,\"{'Sr': 1.0, 'Dy': 3.0}\",\"('Dy', 'Sr')\",OTHERS,False\nmp-1246060,\"{'Zr': 6.0, 'Ag': 3.0, 'N': 9.0}\",\"('Ag', 'N', 'Zr')\",OTHERS,False\nmp-29655,\"{'H': 32.0, 'B': 16.0, 'C': 8.0}\",\"('B', 'C', 'H')\",OTHERS,False\nmp-5456,\"{'O': 3.0, 'Cu': 1.0, 'Sr': 2.0}\",\"('Cu', 'O', 'Sr')\",OTHERS,False\nmp-1074413,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-29107,\"{'Rb': 8.0, 'Te': 16.0, 'Hg': 12.0}\",\"('Hg', 'Rb', 'Te')\",OTHERS,False\nmp-542232,\"{'Ca': 4.0, 'Fe': 4.0, 'F': 20.0}\",\"('Ca', 'F', 'Fe')\",OTHERS,False\nmp-1174631,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1185380,\"{'Li': 2.0, 'Mg': 2.0}\",\"('Li', 'Mg')\",OTHERS,False\nmp-8121,\"{'Si': 2.0, 'Cu': 2.0, 'Sm': 2.0}\",\"('Cu', 'Si', 'Sm')\",OTHERS,False\nmp-1204381,\"{'Ce': 8.0, 'Ni': 28.0}\",\"('Ce', 'Ni')\",OTHERS,False\nmp-1204517,\"{'Er': 4.0, 'Fe': 28.0, 'Si': 6.0}\",\"('Er', 'Fe', 'Si')\",OTHERS,False\nmp-765008,\"{'Li': 6.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-4093,\"{'O': 8.0, 'P': 2.0, 'Cu': 3.0}\",\"('Cu', 'O', 'P')\",OTHERS,False\nmp-772423,\"{'Ni': 3.0, 'S': 6.0, 'O': 24.0}\",\"('Ni', 'O', 'S')\",OTHERS,False\nmp-974882,\"{'Rb': 3.0, 'Mo': 1.0}\",\"('Mo', 'Rb')\",OTHERS,False\nmp-23612,\"{'B': 6.0, 'O': 10.0, 'K': 3.0, 'Br': 1.0}\",\"('B', 'Br', 'K', 'O')\",OTHERS,False\nmp-1193894,\"{'Cs': 12.0, 'Sb': 4.0, 'S': 12.0}\",\"('Cs', 'S', 'Sb')\",OTHERS,False\nmp-625619,\"{'H': 4.0, 'N': 2.0, 'O': 3.0}\",\"('H', 'N', 'O')\",OTHERS,False\nmp-571248,\"{'Cs': 4.0, 'Na': 2.0, 'Au': 6.0, 'C': 12.0, 'N': 12.0}\",\"('Au', 'C', 'Cs', 'N', 'Na')\",OTHERS,False\nmp-1245647,\"{'Zn': 4.0, 'Ag': 4.0, 'N': 4.0}\",\"('Ag', 'N', 'Zn')\",OTHERS,False\nmp-556171,\"{'Cd': 4.0, 'P': 8.0, 'Xe': 20.0, 'F': 88.0}\",\"('Cd', 'F', 'P', 'Xe')\",OTHERS,False\nmp-1227506,\"{'Ba': 4.0, 'Sr': 4.0, 'Si': 16.0}\",\"('Ba', 'Si', 'Sr')\",OTHERS,False\nmp-1019717,\"{'Cs': 4.0, 'B': 4.0, 'S': 12.0, 'O': 44.0}\",\"('B', 'Cs', 'O', 'S')\",OTHERS,False\nmvc-2247,\"{'Ba': 4.0, 'Ca': 2.0, 'Mn': 4.0, 'Cu': 2.0, 'F': 28.0}\",\"('Ba', 'Ca', 'Cu', 'F', 'Mn')\",OTHERS,False\nmp-694908,\"{'Sr': 3.0, 'La': 7.0, 'Ti': 3.0, 'Mn': 7.0, 'O': 30.0}\",\"('La', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1200512,\"{'Er': 12.0, 'Al': 86.0, 'W': 8.0}\",\"('Al', 'Er', 'W')\",OTHERS,False\nAl 65 Cu 20 Co 15,\"{'Al': 65.0, 'Cu': 20.0, 'Co': 15.0}\",\"('Al', 'Co', 'Cu')\",QC,False\nmp-754517,\"{'Sr': 1.0, 'Ca': 2.0, 'I': 6.0}\",\"('Ca', 'I', 'Sr')\",OTHERS,False\nmp-675833,\"{'Mg': 2.0, 'Mo': 12.0, 'Se': 16.0}\",\"('Mg', 'Mo', 'Se')\",OTHERS,False\nmp-990083,\"{'Mo': 18.0, 'S': 36.0}\",\"('Mo', 'S')\",OTHERS,False\nmp-1245166,\"{'Cr': 4.0, 'Fe': 28.0, 'O': 48.0}\",\"('Cr', 'Fe', 'O')\",OTHERS,False\nmp-865538,\"{'Ti': 2.0, 'Re': 1.0, 'Pd': 1.0}\",\"('Pd', 'Re', 'Ti')\",OTHERS,False\nmp-16000,\"{'Ti': 12.0, 'Se': 54.0, 'Ag': 2.0, 'Cs': 10.0}\",\"('Ag', 'Cs', 'Se', 'Ti')\",OTHERS,False\nmp-1185817,\"{'Mg': 5.0, 'In': 1.0}\",\"('In', 'Mg')\",OTHERS,False\nmp-1208259,\"{'Ti': 6.0, 'Co': 2.0, 'S': 12.0}\",\"('Co', 'S', 'Ti')\",OTHERS,False\nmp-1212693,\"{'Nd': 8.0, 'In': 24.0, 'Pt': 8.0}\",\"('In', 'Nd', 'Pt')\",OTHERS,False\nmp-567747,\"{'Co': 7.0, 'Mo': 6.0}\",\"('Co', 'Mo')\",OTHERS,False\nmp-778508,\"{'Li': 12.0, 'Mn': 4.0, 'V': 4.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,False\nmp-867809,\"{'V': 6.0, 'P': 6.0, 'O': 24.0}\",\"('O', 'P', 'V')\",OTHERS,False\nmp-672388,\"{'Th': 2.0, 'Pb': 2.0}\",\"('Pb', 'Th')\",OTHERS,False\nmp-758778,\"{'Li': 2.0, 'Fe': 8.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-24229,\"{'H': 20.0, 'C': 4.0, 'O': 22.0, 'Na': 4.0, 'Ca': 2.0}\",\"('C', 'Ca', 'H', 'Na', 'O')\",OTHERS,False\nmp-1206175,\"{'Eu': 2.0, 'Al': 2.0, 'Ge': 2.0}\",\"('Al', 'Eu', 'Ge')\",OTHERS,False\nmp-676089,\"{'Fe': 2.0, 'Co': 1.0, 'Se': 4.0}\",\"('Co', 'Fe', 'Se')\",OTHERS,False\nmp-706400,\"{'Ba': 4.0, 'P': 8.0, 'H': 16.0, 'O': 32.0}\",\"('Ba', 'H', 'O', 'P')\",OTHERS,False\nmp-632672,\"{'Li': 1.0, 'H': 1.0, 'F': 2.0}\",\"('F', 'H', 'Li')\",OTHERS,False\nmp-1218676,\"{'Sr': 4.0, 'La': 1.0, 'Fe': 2.0, 'Co': 3.0, 'O': 15.0}\",\"('Co', 'Fe', 'La', 'O', 'Sr')\",OTHERS,False\nmp-1210772,\"{'Li': 2.0, 'H': 6.0, 'Pt': 1.0, 'O': 6.0}\",\"('H', 'Li', 'O', 'Pt')\",OTHERS,False\nmp-542533,\"{'Cs': 4.0, 'Na': 4.0, 'O': 52.0, 'B': 16.0, 'H': 48.0}\",\"('B', 'Cs', 'H', 'Na', 'O')\",OTHERS,False\nmp-774411,\"{'Li': 2.0, 'V': 1.0, 'O': 2.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1208008,\"{'Tm': 8.0, 'Si': 12.0, 'Pd': 4.0}\",\"('Pd', 'Si', 'Tm')\",OTHERS,False\nmp-1216020,\"{'Zn': 35.0, 'Cu': 17.0}\",\"('Cu', 'Zn')\",OTHERS,False\nmvc-4363,\"{'Al': 8.0, 'Si': 12.0, 'W': 12.0, 'O': 48.0}\",\"('Al', 'O', 'Si', 'W')\",OTHERS,False\nmp-973261,\"{'Mg': 4.0, 'Sn': 2.0, 'O': 8.0}\",\"('Mg', 'O', 'Sn')\",OTHERS,False\nmp-1197032,\"{'Ag': 28.0, 'P': 4.0, 'S': 24.0}\",\"('Ag', 'P', 'S')\",OTHERS,False\nmvc-14714,\"{'Zn': 1.0, 'Mo': 1.0, 'F': 6.0}\",\"('F', 'Mo', 'Zn')\",OTHERS,False\nmp-1029354,\"{'Mn': 2.0, 'Zn': 4.0, 'N': 6.0}\",\"('Mn', 'N', 'Zn')\",OTHERS,False\nmp-13182,\"{'Li': 4.0, 'O': 10.0, 'Ti': 2.0, 'Ge': 2.0}\",\"('Ge', 'Li', 'O', 'Ti')\",OTHERS,False\nmvc-8331,\"{'V': 4.0, 'Zn': 1.0, 'Cu': 3.0, 'O': 12.0}\",\"('Cu', 'O', 'V', 'Zn')\",OTHERS,False\nmp-761118,\"{'Ti': 7.0, 'Sn': 3.0, 'O': 20.0}\",\"('O', 'Sn', 'Ti')\",OTHERS,False\nmp-9612,\"{'O': 44.0, 'La': 12.0, 'Ir': 12.0}\",\"('Ir', 'La', 'O')\",OTHERS,False\nmp-768854,\"{'Li': 10.0, 'Mn': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-780461,\"{'Mn': 12.0, 'O': 10.0, 'F': 14.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmp-768350,\"{'Ba': 8.0, 'Y': 4.0, 'F': 28.0}\",\"('Ba', 'F', 'Y')\",OTHERS,False\nZn 56.8 Mg 34.6 Tb 8.7,\"{'Zn': 56.8, 'Mg': 34.6, 'Tb': 8.7}\",\"('Mg', 'Tb', 'Zn')\",QC,False\nmp-1228377,\"{'Ba': 3.0, 'Sr': 1.0, 'Co': 4.0, 'O': 12.0}\",\"('Ba', 'Co', 'O', 'Sr')\",OTHERS,False\nmp-1216661,\"{'Ti': 1.0, 'Zn': 1.0, 'Cu': 2.0}\",\"('Cu', 'Ti', 'Zn')\",OTHERS,False\nmp-1095821,\"{'Ti': 2.0, 'Cr': 1.0, 'Co': 1.0}\",\"('Co', 'Cr', 'Ti')\",OTHERS,False\nmp-557121,\"{'K': 4.0, 'Sn': 2.0, 'Au': 4.0, 'S': 8.0}\",\"('Au', 'K', 'S', 'Sn')\",OTHERS,False\nmp-616577,\"{'Sr': 12.0, 'B': 4.0, 'C': 4.0, 'N': 4.0, 'Cl': 8.0}\",\"('B', 'C', 'Cl', 'N', 'Sr')\",OTHERS,False\nmp-867860,\"{'Sm': 1.0, 'Zn': 1.0, 'Au': 2.0}\",\"('Au', 'Sm', 'Zn')\",OTHERS,False\nmp-1245973,\"{'Mn': 16.0, 'Ge': 4.0, 'N': 16.0}\",\"('Ge', 'Mn', 'N')\",OTHERS,False\nmp-570613,\"{'Cd': 6.0, 'I': 12.0}\",\"('Cd', 'I')\",OTHERS,False\nmp-1220922,\"{'Na': 4.0, 'Ti': 4.0, 'Fe': 4.0, 'O': 16.0}\",\"('Fe', 'Na', 'O', 'Ti')\",OTHERS,False\nmp-1208192,\"{'Tm': 12.0, 'In': 2.0, 'Fe': 3.0}\",\"('Fe', 'In', 'Tm')\",OTHERS,False\nmp-1094126,\"{'Sm': 2.0, 'Fe': 2.0, 'O': 5.0}\",\"('Fe', 'O', 'Sm')\",OTHERS,False\nmp-977590,\"{'Nd': 1.0, 'In': 1.0, 'Pd': 2.0}\",\"('In', 'Nd', 'Pd')\",OTHERS,False\nmp-1096261,\"{'Mg': 1.0, 'Ga': 1.0, 'Pt': 2.0}\",\"('Ga', 'Mg', 'Pt')\",OTHERS,False\nmp-560209,\"{'Li': 18.0, 'Al': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Al', 'Li', 'O', 'P')\",OTHERS,False\nmp-1179413,\"{'Ta': 6.0, 'S': 12.0}\",\"('S', 'Ta')\",OTHERS,False\nmp-675037,\"{'Eu': 2.0, 'Sm': 4.0, 'S': 8.0}\",\"('Eu', 'S', 'Sm')\",OTHERS,False\nmp-677292,\"{'Cs': 6.0, 'Ca': 3.0, 'Al': 12.0, 'Si': 12.0, 'O': 48.0}\",\"('Al', 'Ca', 'Cs', 'O', 'Si')\",OTHERS,False\nmp-1035858,\"{'Y': 1.0, 'Mg': 14.0, 'B': 1.0, 'O': 16.0}\",\"('B', 'Mg', 'O', 'Y')\",OTHERS,False\nmp-1206849,\"{'Sr': 2.0, 'P': 2.0, 'Au': 2.0}\",\"('Au', 'P', 'Sr')\",OTHERS,False\nmvc-7989,\"{'Zn': 4.0, 'Cr': 4.0, 'As': 8.0, 'O': 28.0}\",\"('As', 'Cr', 'O', 'Zn')\",OTHERS,False\nmp-973675,\"{'Hf': 18.0, 'As': 2.0, 'W': 8.0}\",\"('As', 'Hf', 'W')\",OTHERS,False\nmp-699393,\"{'Yb': 2.0, 'Si': 12.0, 'H': 108.0, 'C': 36.0, 'N': 6.0}\",\"('C', 'H', 'N', 'Si', 'Yb')\",OTHERS,False\nmp-780578,\"{'Li': 8.0, 'Mn': 2.0, 'Si': 6.0, 'O': 18.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1204346,\"{'Fe': 4.0, 'S': 4.0, 'O': 34.0}\",\"('Fe', 'O', 'S')\",OTHERS,False\nmp-1218440,\"{'Sr': 3.0, 'Fe': 2.0, 'Te': 1.0, 'O': 9.0}\",\"('Fe', 'O', 'Sr', 'Te')\",OTHERS,False\nmp-683971,\"{'Sm': 15.0, 'Ga': 44.0, 'Ni': 52.0}\",\"('Ga', 'Ni', 'Sm')\",OTHERS,False\nmp-554094,\"{'Ca': 2.0, 'Mg': 4.0, 'S': 6.0, 'O': 24.0}\",\"('Ca', 'Mg', 'O', 'S')\",OTHERS,False\nmvc-10399,\"{'Ho': 2.0, 'Zn': 2.0, 'W': 4.0, 'O': 12.0}\",\"('Ho', 'O', 'W', 'Zn')\",OTHERS,False\nmp-603327,\"{'H': 24.0, 'S': 8.0, 'N': 8.0, 'O': 24.0}\",\"('H', 'N', 'O', 'S')\",OTHERS,False\nmp-1208698,\"{'Sm': 2.0, 'P': 6.0, 'O': 18.0}\",\"('O', 'P', 'Sm')\",OTHERS,False\nmp-1187496,\"{'Tl': 3.0, 'Si': 1.0}\",\"('Si', 'Tl')\",OTHERS,False\nmp-34144,\"{'Al': 12.0, 'Mg': 6.0, 'O': 24.0}\",\"('Al', 'Mg', 'O')\",OTHERS,False\nmp-1245031,\"{'Ti': 39.0, 'O': 65.0}\",\"('O', 'Ti')\",OTHERS,False\nmp-695597,\"{'Na': 4.0, 'Mg': 12.0, 'Si': 16.0, 'O': 44.0, 'F': 4.0}\",\"('F', 'Mg', 'Na', 'O', 'Si')\",OTHERS,False\nmp-733998,\"{'Tb': 4.0, 'H': 48.0, 'S': 8.0, 'N': 4.0, 'O': 48.0}\",\"('H', 'N', 'O', 'S', 'Tb')\",OTHERS,False\nmp-1225133,\"{'Fe': 3.0, 'Cu': 1.0, 'As': 2.0}\",\"('As', 'Cu', 'Fe')\",OTHERS,False\nmp-780871,\"{'Li': 6.0, 'Fe': 12.0, 'Si': 12.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-541353,\"{'K': 8.0, 'Tc': 12.0, 'S': 24.0}\",\"('K', 'S', 'Tc')\",OTHERS,False\nmp-24809,\"{'H': 4.0, 'Ca': 2.0}\",\"('Ca', 'H')\",OTHERS,False\nmp-757703,\"{'Mn': 3.0, 'Co': 1.0, 'Sn': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Co', 'Mn', 'O', 'P', 'Sn')\",OTHERS,False\nmp-560584,\"{'Si': 6.0, 'Ag': 18.0, 'O': 21.0}\",\"('Ag', 'O', 'Si')\",OTHERS,False\nmp-27821,\"{'P': 11.0, 'Ag': 3.0}\",\"('Ag', 'P')\",OTHERS,False\nmp-976355,\"{'Lu': 3.0, 'Si': 1.0}\",\"('Lu', 'Si')\",OTHERS,False\nmp-1208963,\"{'Sm': 16.0, 'Mg': 4.0, 'Pd': 4.0}\",\"('Mg', 'Pd', 'Sm')\",OTHERS,False\nmp-1220924,\"{'Na': 2.0, 'Pr': 2.0, 'Ti': 4.0, 'O': 12.0}\",\"('Na', 'O', 'Pr', 'Ti')\",OTHERS,False\nmvc-13319,\"{'Mg': 4.0, 'Nb': 4.0, 'Fe': 2.0, 'O': 16.0}\",\"('Fe', 'Mg', 'Nb', 'O')\",OTHERS,False\nmp-1093588,\"{'Mg': 1.0, 'Sn': 1.0, 'Pt': 2.0}\",\"('Mg', 'Pt', 'Sn')\",OTHERS,False\nmp-1001021,\"{'Y': 4.0, 'Zn': 2.0, 'Se': 8.0}\",\"('Se', 'Y', 'Zn')\",OTHERS,False\nmp-1228040,\"{'Ca': 1.0, 'U': 2.0, 'P': 2.0, 'O': 18.0}\",\"('Ca', 'O', 'P', 'U')\",OTHERS,False\nmp-754297,\"{'Ti': 2.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('H', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1186351,\"{'Nd': 1.0, 'Sm': 1.0, 'In': 2.0}\",\"('In', 'Nd', 'Sm')\",OTHERS,False\nmp-1227127,\"{'Ca': 4.0, 'Mg': 4.0, 'Cd': 4.0}\",\"('Ca', 'Cd', 'Mg')\",OTHERS,False\nmp-1038146,\"{'K': 1.0, 'Mg': 30.0, 'Mn': 1.0, 'O': 32.0}\",\"('K', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-543028,\"{'Tl': 16.0, 'Te': 8.0, 'O': 24.0}\",\"('O', 'Te', 'Tl')\",OTHERS,False\nmp-865270,\"{'Tm': 1.0, 'Ta': 1.0, 'Os': 2.0}\",\"('Os', 'Ta', 'Tm')\",OTHERS,False\nmp-1394,\"{'O': 1.0, 'Rb': 2.0}\",\"('O', 'Rb')\",OTHERS,False\nmp-1110633,\"{'K': 1.0, 'Rb': 2.0, 'Sc': 1.0, 'I': 6.0}\",\"('I', 'K', 'Rb', 'Sc')\",OTHERS,False\nmp-1103367,\"{'C': 4.0, 'N': 4.0, 'O': 4.0}\",\"('C', 'N', 'O')\",OTHERS,False\nmp-759637,\"{'Na': 8.0, 'Sr': 4.0, 'Li': 4.0, 'V': 4.0, 'P': 8.0, 'O': 36.0}\",\"('Li', 'Na', 'O', 'P', 'Sr', 'V')\",OTHERS,False\nmp-1217722,\"{'Tb': 4.0, 'Gd': 8.0, 'Ga': 20.0, 'O': 48.0}\",\"('Ga', 'Gd', 'O', 'Tb')\",OTHERS,False\nmp-1220518,\"{'Nb': 4.0, 'Ni': 1.0, 'C': 2.0, 'S': 4.0}\",\"('C', 'Nb', 'Ni', 'S')\",OTHERS,False\nmp-675980,\"{'Cr': 4.0, 'P': 12.0, 'S': 36.0}\",\"('Cr', 'P', 'S')\",OTHERS,False\nmp-862962,\"{'Ca': 1.0, 'La': 1.0, 'Zn': 2.0}\",\"('Ca', 'La', 'Zn')\",OTHERS,False\nmp-1211671,\"{'La': 6.0, 'Ge': 10.0}\",\"('Ge', 'La')\",OTHERS,False\nmp-1104114,\"{'Eu': 1.0, 'Mo': 6.0, 'Se': 8.0}\",\"('Eu', 'Mo', 'Se')\",OTHERS,False\nmp-626529,\"{'H': 28.0, 'N': 4.0, 'O': 24.0}\",\"('H', 'N', 'O')\",OTHERS,False\nmp-1213891,\"{'Cs': 12.0, 'Pr': 4.0, 'Cl': 24.0}\",\"('Cl', 'Cs', 'Pr')\",OTHERS,False\nmp-1176710,\"{'Li': 8.0, 'Mn': 8.0, 'P': 16.0, 'O': 56.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1206860,\"{'Nd': 3.0, 'Mg': 3.0, 'In': 3.0}\",\"('In', 'Mg', 'Nd')\",OTHERS,False\nmp-1214940,\"{'Al': 4.0, 'P': 4.0, 'H': 8.0, 'O': 16.0}\",\"('Al', 'H', 'O', 'P')\",OTHERS,False\nmp-1187907,\"{'Yb': 1.0, 'Br': 1.0}\",\"('Br', 'Yb')\",OTHERS,False\nmp-1076638,\"{'Rb': 1.0, 'V': 1.0, 'O': 3.0}\",\"('O', 'Rb', 'V')\",OTHERS,False\nmp-1185055,\"{'Hf': 8.0, 'In': 4.0, 'Ni': 8.0}\",\"('Hf', 'In', 'Ni')\",OTHERS,False\nmp-1221134,\"{'Na': 1.0, 'Ca': 2.0, 'Mg': 5.0, 'Al': 1.0, 'Si': 7.0, 'O': 22.0, 'F': 2.0}\",\"('Al', 'Ca', 'F', 'Mg', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1021466,\"{'Cs': 1.0, 'P': 1.0, 'Pb': 1.0, 'I': 2.0, 'F': 6.0}\",\"('Cs', 'F', 'I', 'P', 'Pb')\",OTHERS,False\nmp-1203434,\"{'Na': 16.0, 'Fe': 16.0, 'F': 56.0}\",\"('F', 'Fe', 'Na')\",OTHERS,False\nmp-1183797,\"{'Ce': 4.0, 'Si': 10.0, 'Ni': 6.0}\",\"('Ce', 'Ni', 'Si')\",OTHERS,False\nmp-720118,\"{'Sr': 3.0, 'Nd': 10.0, 'Al': 12.0, 'Si': 18.0, 'N': 36.0, 'O': 18.0}\",\"('Al', 'N', 'Nd', 'O', 'Si', 'Sr')\",OTHERS,False\nmp-775190,\"{'Li': 2.0, 'V': 3.0, 'Cu': 1.0, 'O': 8.0}\",\"('Cu', 'Li', 'O', 'V')\",OTHERS,False\nmp-1079706,\"{'Ti': 5.0, 'Al': 2.0, 'C': 3.0}\",\"('Al', 'C', 'Ti')\",OTHERS,False\nmvc-15532,\"{'Zn': 1.0, 'Cr': 2.0, 'N': 2.0}\",\"('Cr', 'N', 'Zn')\",OTHERS,False\nmp-1186461,\"{'Pm': 2.0, 'Ga': 1.0, 'Hg': 1.0}\",\"('Ga', 'Hg', 'Pm')\",OTHERS,False\nmp-22304,\"{'Se': 4.0, 'Cd': 1.0, 'In': 2.0}\",\"('Cd', 'In', 'Se')\",OTHERS,False\nmp-556569,\"{'Sr': 2.0, 'Ta': 4.0, 'Bi': 4.0, 'O': 18.0}\",\"('Bi', 'O', 'Sr', 'Ta')\",OTHERS,False\nmp-556665,\"{'Tl': 4.0, 'Bi': 4.0, 'P': 8.0, 'S': 28.0}\",\"('Bi', 'P', 'S', 'Tl')\",OTHERS,False\nmp-11567,\"{'Sc': 1.0, 'Zn': 12.0}\",\"('Sc', 'Zn')\",OTHERS,False\nmp-1194580,\"{'Rb': 4.0, 'Na': 8.0, 'B': 24.0, 'Cl': 4.0, 'O': 40.0}\",\"('B', 'Cl', 'Na', 'O', 'Rb')\",OTHERS,False\nmp-1174913,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-850403,\"{'Li': 4.0, 'Fe': 4.0, 'P': 4.0, 'H': 8.0, 'O': 20.0}\",\"('Fe', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-1214494,\"{'Ba': 10.0, 'Y': 4.0, 'Zr': 2.0, 'Al': 4.0, 'O': 26.0}\",\"('Al', 'Ba', 'O', 'Y', 'Zr')\",OTHERS,False\nmp-1084796,\"{'Ca': 1.0, 'Zn': 3.0, 'Se': 4.0}\",\"('Ca', 'Se', 'Zn')\",OTHERS,False\nmp-977592,\"{'Bi': 4.0, 'Rh': 6.0, 'S': 4.0}\",\"('Bi', 'Rh', 'S')\",OTHERS,False\nmp-754860,\"{'Co': 10.0, 'O': 5.0, 'F': 15.0}\",\"('Co', 'F', 'O')\",OTHERS,False\nmvc-15097,\"{'Y': 2.0, 'Cu': 3.0, 'W': 6.0, 'O': 24.0}\",\"('Cu', 'O', 'W', 'Y')\",OTHERS,False\nmp-10224,\"{'Na': 1.0, 'S': 2.0, 'V': 1.0}\",\"('Na', 'S', 'V')\",OTHERS,False\nmp-1102017,\"{'Cd': 4.0, 'Br': 4.0, 'O': 4.0}\",\"('Br', 'Cd', 'O')\",OTHERS,False\nmp-1017983,\"{'Ti': 1.0, 'Mo': 3.0}\",\"('Mo', 'Ti')\",OTHERS,False\nmp-1037677,\"{'Li': 1.0, 'Mg': 30.0, 'Fe': 1.0, 'O': 32.0}\",\"('Fe', 'Li', 'Mg', 'O')\",OTHERS,False\nmp-1076858,\"{'Sr': 7.0, 'Ca': 1.0, 'Fe': 7.0, 'Co': 1.0, 'O': 24.0}\",\"('Ca', 'Co', 'Fe', 'O', 'Sr')\",OTHERS,False\nmp-973779,\"{'Nd': 2.0, 'Cd': 1.0, 'Hg': 1.0}\",\"('Cd', 'Hg', 'Nd')\",OTHERS,False\nmp-560164,\"{'Li': 3.0, 'Al': 1.0, 'Mo': 2.0, 'As': 2.0, 'O': 14.0}\",\"('Al', 'As', 'Li', 'Mo', 'O')\",OTHERS,False\nmp-758877,\"{'Li': 14.0, 'Mn': 14.0, 'P': 12.0, 'O': 48.0, 'F': 6.0}\",\"('F', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1250185,\"{'Ca': 8.0, 'Mn': 8.0, 'Si': 12.0, 'O': 48.0}\",\"('Ca', 'Mn', 'O', 'Si')\",OTHERS,False\nmp-1114466,\"{'Rb': 2.0, 'Al': 1.0, 'Tl': 1.0, 'Br': 6.0}\",\"('Al', 'Br', 'Rb', 'Tl')\",OTHERS,False\nmp-1223817,\"{'K': 4.0, 'Mo': 1.0, 'W': 1.0, 'O': 8.0}\",\"('K', 'Mo', 'O', 'W')\",OTHERS,False\nmp-1247276,\"{'Mg': 2.0, 'Ti': 1.0, 'Mn': 3.0, 'S': 8.0}\",\"('Mg', 'Mn', 'S', 'Ti')\",OTHERS,False\nmp-770456,\"{'Li': 6.0, 'Ti': 2.0, 'O': 7.0}\",\"('Li', 'O', 'Ti')\",OTHERS,False\nmp-570629,\"{'Ce': 8.0, 'Ru': 6.0}\",\"('Ce', 'Ru')\",OTHERS,False\nmp-13003,\"{'O': 12.0, 'Ge': 4.0, 'Cd': 4.0}\",\"('Cd', 'Ge', 'O')\",OTHERS,False\nmp-772842,\"{'Na': 8.0, 'Ge': 8.0, 'O': 20.0}\",\"('Ge', 'Na', 'O')\",OTHERS,False\nmp-865386,\"{'Gd': 2.0, 'Ga': 6.0}\",\"('Ga', 'Gd')\",OTHERS,False\nmp-1202680,\"{'Co': 12.0, 'Te': 8.0, 'O': 32.0}\",\"('Co', 'O', 'Te')\",OTHERS,False\nmp-978512,\"{'Sm': 1.0, 'Tm': 1.0, 'Mg': 2.0}\",\"('Mg', 'Sm', 'Tm')\",OTHERS,False\nmp-505014,\"{'Cs': 8.0, 'Sn': 4.0, 'Te': 14.0}\",\"('Cs', 'Sn', 'Te')\",OTHERS,False\nmp-569940,\"{'K': 6.0, 'Bi': 2.0}\",\"('Bi', 'K')\",OTHERS,False\nmp-677659,\"{'Sr': 7.0, 'La': 7.0, 'Cu': 7.0, 'Ru': 7.0, 'O': 42.0}\",\"('Cu', 'La', 'O', 'Ru', 'Sr')\",OTHERS,False\nmp-1196332,\"{'Fe': 8.0, 'H': 40.0, 'S': 8.0, 'O': 44.0}\",\"('Fe', 'H', 'O', 'S')\",OTHERS,False\nmp-6008,\"{'O': 48.0, 'Al': 8.0, 'Si': 12.0, 'Ca': 12.0}\",\"('Al', 'Ca', 'O', 'Si')\",OTHERS,False\nmp-504944,\"{'P': 8.0, 'Na': 8.0, 'O': 32.0, 'H': 16.0}\",\"('H', 'Na', 'O', 'P')\",OTHERS,False\nmp-1095460,\"{'Hg': 4.0, 'Sb': 1.0, 'H': 1.0, 'O': 6.0}\",\"('H', 'Hg', 'O', 'Sb')\",OTHERS,False\nmp-1192354,\"{'Eu': 4.0, 'Ga': 4.0, 'Ge': 2.0, 'S': 14.0}\",\"('Eu', 'Ga', 'Ge', 'S')\",OTHERS,False\nmp-1180149,\"{'Na': 2.0, 'V': 4.0, 'O': 10.0}\",\"('Na', 'O', 'V')\",OTHERS,False\nmp-1213703,\"{'Cs': 3.0, 'Ca': 2.0, 'Cl': 7.0}\",\"('Ca', 'Cl', 'Cs')\",OTHERS,False\nmp-1186408,\"{'Pa': 2.0, 'Si': 6.0}\",\"('Pa', 'Si')\",OTHERS,False\nmp-567614,\"{'Tb': 4.0, 'Co': 4.0, 'I': 2.0}\",\"('Co', 'I', 'Tb')\",OTHERS,False\nmp-849366,\"{'Li': 2.0, 'Co': 6.0, 'O': 2.0, 'F': 10.0}\",\"('Co', 'F', 'Li', 'O')\",OTHERS,False\nAl 71.5 Co 23.6 Cu 4.9,\"{'Al': 71.5, 'Co': 23.6, 'Cu': 4.9}\",\"('Al', 'Co', 'Cu')\",AC,False\nmp-769001,\"{'Li': 12.0, 'Sn': 4.0, 'B': 8.0, 'S': 2.0, 'O': 32.0}\",\"('B', 'Li', 'O', 'S', 'Sn')\",OTHERS,False\nmp-774516,\"{'Li': 8.0, 'Mg': 3.0, 'Cu': 9.0, 'Si': 16.0, 'O': 48.0}\",\"('Cu', 'Li', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1180667,\"{'La': 6.0, 'Fe': 2.0, 'O': 12.0}\",\"('Fe', 'La', 'O')\",OTHERS,False\nmp-1197627,\"{'Pu': 4.0, 'Te': 8.0, 'Cl': 4.0, 'O': 22.0}\",\"('Cl', 'O', 'Pu', 'Te')\",OTHERS,False\nmp-1187466,\"{'Ti': 3.0, 'Cd': 1.0}\",\"('Cd', 'Ti')\",OTHERS,False\nmp-673029,\"{'Li': 2.0, 'Sn': 4.0, 'P': 10.0, 'O': 32.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1205209,\"{'Fe': 8.0, 'S': 8.0, 'O': 56.0}\",\"('Fe', 'O', 'S')\",OTHERS,False\nmp-1080029,\"{'Ba': 2.0, 'Mn': 2.0, 'Se': 2.0, 'O': 1.0, 'F': 2.0}\",\"('Ba', 'F', 'Mn', 'O', 'Se')\",OTHERS,False\nmp-1196548,\"{'H': 36.0, 'C': 32.0, 'N': 4.0, 'O': 36.0}\",\"('C', 'H', 'N', 'O')\",OTHERS,False\nmp-707443,\"{'Na': 7.0, 'Al': 1.0, 'H': 2.0, 'C': 4.0, 'O': 12.0, 'F': 4.0}\",\"('Al', 'C', 'F', 'H', 'Na', 'O')\",OTHERS,False\nmp-1227803,\"{'Ba': 4.0, 'Sn': 8.0, 'Bi': 4.0}\",\"('Ba', 'Bi', 'Sn')\",OTHERS,False\nmp-22239,\"{'Ge': 4.0, 'Rh': 4.0}\",\"('Ge', 'Rh')\",OTHERS,False\nmp-1222518,\"{'Li': 4.0, 'Te': 4.0, 'H': 20.0, 'O': 24.0}\",\"('H', 'Li', 'O', 'Te')\",OTHERS,False\nmp-973538,\"{'Lu': 2.0, 'Al': 1.0, 'Zn': 1.0}\",\"('Al', 'Lu', 'Zn')\",OTHERS,False\nmp-756535,\"{'Li': 2.0, 'Fe': 2.0, 'F': 8.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-768369,\"{'Ba': 8.0, 'Y': 4.0, 'F': 28.0}\",\"('Ba', 'F', 'Y')\",OTHERS,False\nmvc-6817,\"{'Zn': 4.0, 'Cr': 8.0, 'O': 16.0}\",\"('Cr', 'O', 'Zn')\",OTHERS,False\nmp-1202237,\"{'Mg': 4.0, 'B': 8.0, 'H': 52.0, 'N': 12.0}\",\"('B', 'H', 'Mg', 'N')\",OTHERS,False\nmp-849419,\"{'Fe': 10.0, 'O': 9.0, 'F': 11.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmp-1208841,\"{'Sr': 2.0, 'Fe': 1.0, 'As': 2.0, 'F': 1.0}\",\"('As', 'F', 'Fe', 'Sr')\",OTHERS,False\nmp-862676,\"{'Li': 1.0, 'Ho': 1.0, 'In': 2.0}\",\"('Ho', 'In', 'Li')\",OTHERS,False\nmp-1180387,\"{'Mg': 1.0, 'Mn': 2.0, 'Br': 6.0, 'O': 12.0}\",\"('Br', 'Mg', 'Mn', 'O')\",OTHERS,False\nmp-1196485,\"{'Sm': 12.0, 'In': 4.0, 'S': 24.0}\",\"('In', 'S', 'Sm')\",OTHERS,False\nmp-1028607,\"{'Te': 4.0, 'Mo': 1.0, 'W': 3.0, 'Se': 4.0}\",\"('Mo', 'Se', 'Te', 'W')\",OTHERS,False\nmp-773118,\"{'Ba': 6.0, 'Li': 2.0, 'Ta': 9.0, 'Ti': 7.0, 'O': 42.0}\",\"('Ba', 'Li', 'O', 'Ta', 'Ti')\",OTHERS,False\nmp-1096115,\"{'Li': 1.0, 'Pd': 2.0, 'Au': 1.0}\",\"('Au', 'Li', 'Pd')\",OTHERS,False\nmp-1218186,\"{'Sr': 1.0, 'Mn': 1.0, 'Te': 1.0, 'O': 6.0}\",\"('Mn', 'O', 'Sr', 'Te')\",OTHERS,False\nmvc-6562,\"{'Y': 2.0, 'W': 6.0, 'F': 30.0}\",\"('F', 'W', 'Y')\",OTHERS,False\nmp-1213751,\"{'Cs': 8.0, 'B': 48.0, 'H': 4.0, 'F': 48.0}\",\"('B', 'Cs', 'F', 'H')\",OTHERS,False\nmp-684950,\"{'K': 1.0, 'Na': 1.0, 'Zr': 2.0, 'Be': 1.0, 'P': 4.0, 'O': 16.0}\",\"('Be', 'K', 'Na', 'O', 'P', 'Zr')\",OTHERS,False\nmp-1213907,\"{'Ce': 4.0, 'Ga': 18.0, 'Rh': 6.0}\",\"('Ce', 'Ga', 'Rh')\",OTHERS,False\nmp-1112422,\"{'K': 2.0, 'Nd': 1.0, 'Au': 1.0, 'Cl': 6.0}\",\"('Au', 'Cl', 'K', 'Nd')\",OTHERS,False\nmp-28642,\"{'F': 72.0, 'Al': 8.0, 'Ba': 24.0}\",\"('Al', 'Ba', 'F')\",OTHERS,False\nmp-16591,\"{'O': 28.0, 'Si': 8.0, 'S': 12.0, 'Tm': 16.0}\",\"('O', 'S', 'Si', 'Tm')\",OTHERS,False\nmp-28143,\"{'H': 32.0, 'N': 8.0, 'S': 20.0}\",\"('H', 'N', 'S')\",OTHERS,False\nmp-1080155,\"{'Te': 4.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-690522,\"{'Mo': 2.0, 'Cl': 4.0, 'O': 1.0}\",\"('Cl', 'Mo', 'O')\",OTHERS,False\nmvc-6418,\"{'Ca': 2.0, 'Cr': 4.0, 'O': 8.0}\",\"('Ca', 'Cr', 'O')\",OTHERS,False\nmp-758463,\"{'Li': 1.0, 'Ni': 1.0, 'Sn': 1.0, 'O': 4.0}\",\"('Li', 'Ni', 'O', 'Sn')\",OTHERS,False\nmp-1203016,\"{'Ba': 18.0, 'Al': 18.0, 'As': 30.0}\",\"('Al', 'As', 'Ba')\",OTHERS,False\nmp-556591,\"{'Si': 18.0, 'O': 36.0}\",\"('O', 'Si')\",OTHERS,False\nmp-1011376,\"{'Ce': 1.0, 'Se': 2.0}\",\"('Ce', 'Se')\",OTHERS,False\nmp-23486,\"{'Cl': 6.0, 'Ni': 2.0, 'Rb': 2.0}\",\"('Cl', 'Ni', 'Rb')\",OTHERS,False\nmp-867583,\"{'Ag': 6.0, 'Sb': 6.0, 'O': 18.0}\",\"('Ag', 'O', 'Sb')\",OTHERS,False\nmp-9205,\"{'O': 4.0, 'F': 2.0, 'K': 2.0, 'Se': 2.0}\",\"('F', 'K', 'O', 'Se')\",OTHERS,False\nmp-758923,\"{'Sb': 4.0, 'As': 4.0, 'Au': 4.0, 'F': 36.0}\",\"('As', 'Au', 'F', 'Sb')\",OTHERS,False\nmp-18852,\"{'O': 8.0, 'Na': 4.0, 'Mo': 2.0}\",\"('Mo', 'Na', 'O')\",OTHERS,False\nmp-1101165,\"{'Yb': 2.0, 'Bi': 2.0, 'O': 6.0}\",\"('Bi', 'O', 'Yb')\",OTHERS,False\nmp-1203225,\"{'Al': 4.0, 'Se': 6.0, 'O': 24.0}\",\"('Al', 'O', 'Se')\",OTHERS,False\nmp-1212687,\"{'Fe': 2.0, 'Ni': 2.0, 'Ag': 4.0, 'F': 14.0}\",\"('Ag', 'F', 'Fe', 'Ni')\",OTHERS,False\nmp-757269,\"{'Li': 6.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,False\nCd 65 Mg 20 Gd 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Gd': 15.0}\",\"('Cd', 'Gd', 'Mg')\",QC,False\nmp-867161,\"{'Li': 1.0, 'In': 3.0}\",\"('In', 'Li')\",OTHERS,False\nmp-865533,\"{'Ti': 2.0, 'Re': 1.0, 'Os': 1.0}\",\"('Os', 'Re', 'Ti')\",OTHERS,False\nmp-1226930,\"{'Cr': 19.0, 'S': 30.0}\",\"('Cr', 'S')\",OTHERS,False\nmp-966801,\"{'Li': 4.0, 'Ca': 4.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Ca', 'Li', 'O')\",OTHERS,False\nmp-1184131,\"{'Er': 2.0, 'Ag': 1.0, 'Os': 1.0}\",\"('Ag', 'Er', 'Os')\",OTHERS,False\nmp-1222558,\"{'Li': 3.0, 'Ag': 3.0, 'Ge': 2.0}\",\"('Ag', 'Ge', 'Li')\",OTHERS,False\nmp-695325,\"{'Ti': 5.0, 'Zn': 1.0, 'Bi': 2.0, 'Pb': 4.0, 'O': 18.0}\",\"('Bi', 'O', 'Pb', 'Ti', 'Zn')\",OTHERS,False\nmp-675045,\"{'Li': 14.0, 'V': 2.0, 'P': 8.0}\",\"('Li', 'P', 'V')\",OTHERS,False\nmp-758947,\"{'Li': 14.0, 'Mn': 14.0, 'P': 12.0, 'O': 48.0, 'F': 6.0}\",\"('F', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1200662,\"{'Hg': 8.0, 'S': 8.0, 'O': 32.0}\",\"('Hg', 'O', 'S')\",OTHERS,False\nmp-1217221,\"{'Ti': 4.0, 'Fe': 1.0, 'Co': 1.0, 'S': 8.0}\",\"('Co', 'Fe', 'S', 'Ti')\",OTHERS,False\nmp-10647,\"{'Se': 1.0, 'Tl': 1.0}\",\"('Se', 'Tl')\",OTHERS,False\nmp-15960,\"{'Li': 40.0, 'O': 32.0, 'Al': 8.0}\",\"('Al', 'Li', 'O')\",OTHERS,False\nmp-9847,\"{'P': 10.0, 'Yb': 2.0}\",\"('P', 'Yb')\",OTHERS,False\nmvc-1915,\"{'Ca': 2.0, 'Ti': 9.0, 'O': 13.0}\",\"('Ca', 'O', 'Ti')\",OTHERS,False\nmvc-9330,\"{'Pr': 2.0, 'Zn': 2.0, 'Cu': 4.0, 'O': 12.0}\",\"('Cu', 'O', 'Pr', 'Zn')\",OTHERS,False\nmp-1210714,\"{'V': 4.0, 'H': 48.0, 'S': 4.0, 'O': 40.0}\",\"('H', 'O', 'S', 'V')\",OTHERS,False\nmp-1079433,\"{'Ba': 1.0, 'Mg': 4.0, 'Si': 3.0}\",\"('Ba', 'Mg', 'Si')\",OTHERS,False\nmp-1224891,\"{'Ga': 3.0, 'Cu': 3.0, 'Si': 1.0, 'Se': 8.0}\",\"('Cu', 'Ga', 'Se', 'Si')\",OTHERS,False\nmvc-7066,\"{'Mg': 4.0, 'Mo': 8.0, 'O': 16.0}\",\"('Mg', 'Mo', 'O')\",OTHERS,False\nmp-1183046,\"{'Zr': 2.0, 'Ti': 6.0}\",\"('Ti', 'Zr')\",OTHERS,False\nmp-1114452,\"{'Rb': 2.0, 'Na': 1.0, 'Pr': 1.0, 'F': 6.0}\",\"('F', 'Na', 'Pr', 'Rb')\",OTHERS,False\nmp-861726,\"{'Pu': 1.0, 'Bi': 1.0, 'Pd': 2.0}\",\"('Bi', 'Pd', 'Pu')\",OTHERS,False\nmp-1225302,\"{'Fe': 10.0, 'P': 6.0, 'O': 34.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-12304,\"{'Sc': 22.0, 'Ir': 8.0}\",\"('Ir', 'Sc')\",OTHERS,False\nmp-676275,\"{'Nd': 2.0, 'Pb': 5.0, 'F': 16.0}\",\"('F', 'Nd', 'Pb')\",OTHERS,False\nmp-1080472,\"{'Pt': 1.0, 'N': 2.0, 'Cl': 6.0}\",\"('Cl', 'N', 'Pt')\",OTHERS,False\nmp-1211232,\"{'La': 2.0, 'Al': 6.0, 'Ni': 4.0}\",\"('Al', 'La', 'Ni')\",OTHERS,False\nmp-510581,\"{'Pr': 4.0, 'Ni': 4.0, 'Sn': 4.0, 'H': 8.0}\",\"('H', 'Ni', 'Pr', 'Sn')\",OTHERS,False\nmp-1079846,\"{'Th': 3.0, 'Al': 3.0, 'Ir': 3.0}\",\"('Al', 'Ir', 'Th')\",OTHERS,False\nmp-752636,\"{'Li': 4.0, 'Sb': 4.0, 'O': 12.0}\",\"('Li', 'O', 'Sb')\",OTHERS,False\nmp-1201161,\"{'Pr': 16.0, 'As': 4.0, 'Br': 4.0, 'O': 32.0}\",\"('As', 'Br', 'O', 'Pr')\",OTHERS,False\nmp-546790,\"{'O': 2.0, 'Te': 2.0, 'La': 2.0, 'Cu': 2.0}\",\"('Cu', 'La', 'O', 'Te')\",OTHERS,False\nmp-540771,\"{'Ba': 4.0, 'Zr': 4.0, 'S': 12.0}\",\"('Ba', 'S', 'Zr')\",OTHERS,False\nmp-1103880,\"{'Tm': 3.0, 'Ga': 9.0, 'Pt': 2.0}\",\"('Ga', 'Pt', 'Tm')\",OTHERS,False\nmp-1030340,\"{'Te': 6.0, 'Mo': 3.0, 'W': 1.0, 'S': 2.0}\",\"('Mo', 'S', 'Te', 'W')\",OTHERS,False\nmp-1097176,\"{'Sr': 1.0, 'Li': 1.0, 'Tl': 2.0}\",\"('Li', 'Sr', 'Tl')\",OTHERS,False\nmp-30718,\"{'K': 20.0, 'Hg': 28.0}\",\"('Hg', 'K')\",OTHERS,False\nmp-1221880,\"{'Mn': 2.0, 'Cu': 1.0, 'Sb': 2.0, 'Pd': 1.0}\",\"('Cu', 'Mn', 'Pd', 'Sb')\",OTHERS,False\nmp-705479,\"{'Sn': 4.0, 'H': 24.0, 'Cl': 16.0, 'O': 12.0}\",\"('Cl', 'H', 'O', 'Sn')\",OTHERS,False\nmp-1018735,\"{'Ba': 1.0, 'Ti': 2.0, 'As': 2.0, 'O': 1.0}\",\"('As', 'Ba', 'O', 'Ti')\",OTHERS,False\nmp-1195997,\"{'Y': 4.0, 'B': 12.0, 'H': 120.0, 'N': 24.0}\",\"('B', 'H', 'N', 'Y')\",OTHERS,False\nmp-1097659,\"{'Y': 2.0, 'Ga': 1.0, 'Pd': 1.0}\",\"('Ga', 'Pd', 'Y')\",OTHERS,False\nmp-768514,\"{'Li': 9.0, 'Ti': 1.0, 'Mn': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'Mn', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1205964,\"{'Ca': 2.0, 'Fe': 1.0, 'H': 6.0}\",\"('Ca', 'Fe', 'H')\",OTHERS,False\nmp-977584,\"{'Zr': 2.0, 'Zn': 1.0, 'Ag': 2.0, 'F': 14.0}\",\"('Ag', 'F', 'Zn', 'Zr')\",OTHERS,False\nmp-675539,\"{'Na': 7.0, 'Cu': 3.0, 'O': 8.0}\",\"('Cu', 'Na', 'O')\",OTHERS,False\nmp-1114444,\"{'Rb': 2.0, 'Na': 1.0, 'Lu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Lu', 'Na', 'Rb')\",OTHERS,False\nmp-16194,\"{'O': 36.0, 'Si': 12.0, 'Rb': 24.0}\",\"('O', 'Rb', 'Si')\",OTHERS,False\nmp-560091,\"{'Cs': 2.0, 'Zr': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Cs', 'O', 'P', 'Zr')\",OTHERS,False\nmp-559422,\"{'Bi': 32.0, 'Au': 16.0, 'O': 72.0}\",\"('Au', 'Bi', 'O')\",OTHERS,False\nmp-1184411,\"{'Eu': 1.0, 'Mo': 1.0, 'O': 3.0}\",\"('Eu', 'Mo', 'O')\",OTHERS,False\nmp-1105153,\"{'Sr': 4.0, 'Os': 4.0, 'O': 12.0}\",\"('O', 'Os', 'Sr')\",OTHERS,False\nmp-559025,\"{'Ba': 2.0, 'Er': 2.0, 'Ag': 2.0, 'S': 6.0}\",\"('Ag', 'Ba', 'Er', 'S')\",OTHERS,False\nmp-985,\"{'Cu': 1.0, 'Tm': 1.0}\",\"('Cu', 'Tm')\",OTHERS,False\nmp-774791,\"{'Li': 4.0, 'Mn': 3.0, 'Cr': 3.0, 'Te': 2.0, 'O': 16.0}\",\"('Cr', 'Li', 'Mn', 'O', 'Te')\",OTHERS,False\nmp-1076134,\"{'Sr': 12.0, 'Ca': 20.0, 'Ti': 12.0, 'Mn': 20.0, 'O': 80.0}\",\"('Ca', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,False\nmp-1190342,\"{'Lu': 10.0, 'Pt': 6.0}\",\"('Lu', 'Pt')\",OTHERS,False\nmp-866101,\"{'Ac': 1.0, 'Cr': 1.0, 'O': 3.0}\",\"('Ac', 'Cr', 'O')\",OTHERS,False\nmp-1193367,\"{'Na': 2.0, 'Ca': 4.0, 'Si': 6.0, 'O': 18.0}\",\"('Ca', 'Na', 'O', 'Si')\",OTHERS,False\nmp-1076247,\"{'Ba': 6.0, 'Sr': 2.0, 'Co': 1.0, 'Cu': 7.0, 'O': 24.0}\",\"('Ba', 'Co', 'Cu', 'O', 'Sr')\",OTHERS,False\nmp-5036,\"{'P': 8.0, 'S': 32.0, 'Er': 8.0}\",\"('Er', 'P', 'S')\",OTHERS,False\nmp-1225500,\"{'Dy': 1.0, 'Ho': 1.0, 'Al': 4.0}\",\"('Al', 'Dy', 'Ho')\",OTHERS,False\nmp-1101457,\"{'Ni': 2.0, 'Bi': 4.0, 'O': 12.0}\",\"('Bi', 'Ni', 'O')\",OTHERS,False\nmp-1229089,\"{'Ag': 1.0, 'Bi': 1.0, 'Se': 1.0, 'S': 1.0}\",\"('Ag', 'Bi', 'S', 'Se')\",OTHERS,False\nmvc-1114,\"{'Ba': 2.0, 'Y': 2.0, 'Ti': 8.0, 'O': 14.0}\",\"('Ba', 'O', 'Ti', 'Y')\",OTHERS,False\nmp-1199390,\"{'Ag': 4.0, 'H': 80.0, 'S': 24.0, 'N': 20.0, 'O': 36.0}\",\"('Ag', 'H', 'N', 'O', 'S')\",OTHERS,False\nmp-1598,\"{'Na': 6.0, 'P': 2.0}\",\"('Na', 'P')\",OTHERS,False\nmp-1036503,\"{'Cs': 1.0, 'Mg': 14.0, 'Al': 1.0, 'O': 16.0}\",\"('Al', 'Cs', 'Mg', 'O')\",OTHERS,False\nmp-555629,\"{'Sb': 4.0, 'Te': 4.0, 'Cl': 12.0, 'F': 24.0}\",\"('Cl', 'F', 'Sb', 'Te')\",OTHERS,False\nmp-1076184,\"{'Sr': 8.0, 'Ca': 24.0, 'Mn': 32.0, 'O': 80.0}\",\"('Ca', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1112900,\"{'Cs': 2.0, 'Tl': 1.0, 'Hg': 1.0, 'Br': 6.0}\",\"('Br', 'Cs', 'Hg', 'Tl')\",OTHERS,False\nmp-540079,\"{'Ni': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Ni', 'O', 'P')\",OTHERS,False\nmp-1572,\"{'Ga': 4.0, 'Se': 4.0}\",\"('Ga', 'Se')\",OTHERS,False\nmp-510751,\"{'Cu': 16.0, 'O': 16.0}\",\"('Cu', 'O')\",OTHERS,False\nmp-8925,\"{'Ag': 3.0, 'Te': 2.0, 'Tl': 1.0}\",\"('Ag', 'Te', 'Tl')\",OTHERS,False\nmp-568537,\"{'Yb': 1.0, 'In': 1.0, 'Au': 2.0}\",\"('Au', 'In', 'Yb')\",OTHERS,False\nmp-1183402,\"{'Ba': 2.0, 'Li': 2.0, 'B': 18.0, 'O': 30.0}\",\"('B', 'Ba', 'Li', 'O')\",OTHERS,False\nmp-1894,\"{'C': 1.0, 'W': 1.0}\",\"('C', 'W')\",OTHERS,False\nmp-30006,\"{'N': 8.0, 'O': 24.0, 'Co': 4.0}\",\"('Co', 'N', 'O')\",OTHERS,False\nmp-22978,\"{'Rb': 2.0, 'Mn': 1.0, 'Cl': 4.0}\",\"('Cl', 'Mn', 'Rb')\",OTHERS,False\nmp-1174104,\"{'Li': 5.0, 'Co': 3.0, 'O': 8.0}\",\"('Co', 'Li', 'O')\",OTHERS,False\nmp-1113426,\"{'Cs': 1.0, 'Rb': 2.0, 'As': 1.0, 'Br': 6.0}\",\"('As', 'Br', 'Cs', 'Rb')\",OTHERS,False\nmp-543019,\"{'Gd': 2.0, 'Ni': 4.0}\",\"('Gd', 'Ni')\",OTHERS,False\nmp-569340,\"{'Rb': 8.0, 'Zn': 4.0, 'N': 48.0}\",\"('N', 'Rb', 'Zn')\",OTHERS,False\nmp-1221426,\"{'Mo': 1.0, 'Ir': 4.0}\",\"('Ir', 'Mo')\",OTHERS,False\nmp-674513,\"{'Dy': 6.0, 'Ta': 2.0, 'O': 14.0}\",\"('Dy', 'O', 'Ta')\",OTHERS,False\nmp-1245567,\"{'Fe': 1.0, 'Co': 2.0, 'N': 2.0}\",\"('Co', 'Fe', 'N')\",OTHERS,False\nmp-571265,\"{'Rb': 4.0, 'U': 2.0, 'Br': 12.0}\",\"('Br', 'Rb', 'U')\",OTHERS,False\nmp-20331,\"{'Cu': 4.0, 'Se': 8.0, 'Sb': 4.0}\",\"('Cu', 'Sb', 'Se')\",OTHERS,False\nmp-1037241,\"{'Y': 1.0, 'Mg': 30.0, 'C': 1.0, 'O': 32.0}\",\"('C', 'Mg', 'O', 'Y')\",OTHERS,False\nmp-1029153,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-1219452,\"{'Sc': 2.0, 'Tl': 4.0, 'Mo': 30.0, 'S': 38.0}\",\"('Mo', 'S', 'Sc', 'Tl')\",OTHERS,False\nmp-694855,\"{'Li': 4.0, 'Mo': 2.0, 'O': 6.0}\",\"('Li', 'Mo', 'O')\",OTHERS,False\nmp-21862,\"{'C': 1.0, 'V': 1.0, 'Ru': 3.0}\",\"('C', 'Ru', 'V')\",OTHERS,False\nmp-570009,\"{'Np': 1.0, 'Mn': 2.0, 'Si': 2.0}\",\"('Mn', 'Np', 'Si')\",OTHERS,False\nmp-569894,\"{'La': 4.0, 'B': 4.0, 'Cl': 5.0}\",\"('B', 'Cl', 'La')\",OTHERS,False\nmp-973601,\"{'Hg': 1.0, 'I': 3.0}\",\"('Hg', 'I')\",OTHERS,False\nmp-1112225,\"{'Rb': 2.0, 'In': 1.0, 'Hg': 1.0, 'F': 6.0}\",\"('F', 'Hg', 'In', 'Rb')\",OTHERS,False\nmp-510567,\"{'Ce': 6.0, 'Cu': 2.0, 'Sn': 2.0, 'S': 14.0}\",\"('Ce', 'Cu', 'S', 'Sn')\",OTHERS,False\nmp-758596,\"{'Li': 4.0, 'Fe': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,False\nmp-36484,\"{'V': 16.0, 'Ni': 4.0, 'O': 30.0}\",\"('Ni', 'O', 'V')\",OTHERS,False\nmvc-4401,\"{'Ge': 12.0, 'W': 8.0, 'O': 48.0}\",\"('Ge', 'O', 'W')\",OTHERS,False\nmp-557635,\"{'Sb': 16.0, 'Te': 8.0, 'Se': 8.0, 'F': 80.0}\",\"('F', 'Sb', 'Se', 'Te')\",OTHERS,False\nmp-1222222,\"{'Mn': 4.0, 'Ga': 3.0, 'Co': 8.0, 'Ge': 1.0}\",\"('Co', 'Ga', 'Ge', 'Mn')\",OTHERS,False\nmp-1099847,\"{'Sr': 4.0, 'Ca': 28.0, 'Fe': 4.0, 'Co': 28.0, 'O': 80.0}\",\"('Ca', 'Co', 'Fe', 'O', 'Sr')\",OTHERS,False\nmp-849364,\"{'Li': 4.0, 'Mn': 4.0, 'P': 4.0, 'H': 24.0, 'O': 30.0}\",\"('H', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1229221,\"{'As': 8.0, 'Se': 12.0, 'S': 12.0, 'N': 16.0, 'F': 48.0}\",\"('As', 'F', 'N', 'S', 'Se')\",OTHERS,False\nmp-1218095,\"{'Sr': 1.0, 'Nd': 1.0, 'Ga': 1.0, 'O': 4.0}\",\"('Ga', 'Nd', 'O', 'Sr')\",OTHERS,False\nmp-1025937,\"{'Te': 4.0, 'Mo': 3.0, 'S': 2.0}\",\"('Mo', 'S', 'Te')\",OTHERS,False\nmp-1023939,\"{'Mo': 2.0, 'S': 4.0}\",\"('Mo', 'S')\",OTHERS,False\nmp-1063133,\"{'Ca': 1.0, 'Pd': 2.0}\",\"('Ca', 'Pd')\",OTHERS,False\nmp-568627,\"{'Rb': 8.0, 'Tm': 2.0, 'I': 12.0}\",\"('I', 'Rb', 'Tm')\",OTHERS,False\nmp-769301,\"{'Ca': 16.0, 'Ta': 8.0, 'O': 36.0}\",\"('Ca', 'O', 'Ta')\",OTHERS,False\nmp-1210989,\"{'Li': 12.0, 'Er': 12.0, 'Te': 8.0, 'O': 48.0}\",\"('Er', 'Li', 'O', 'Te')\",OTHERS,False\nmp-642729,\"{'La': 1.0, 'H': 3.0, 'C': 3.0, 'O': 6.0}\",\"('C', 'H', 'La', 'O')\",OTHERS,False\nmp-763252,\"{'Li': 2.0, 'Sb': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Li', 'O', 'Sb', 'W')\",OTHERS,False\nmp-1202794,\"{'Si': 20.0, 'H': 114.0, 'C': 38.0}\",\"('C', 'H', 'Si')\",OTHERS,False\nmp-759168,\"{'Li': 6.0, 'V': 2.0, 'O': 4.0, 'F': 4.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-1198240,\"{'La': 10.0, 'Sn': 20.0, 'Ir': 8.0}\",\"('Ir', 'La', 'Sn')\",OTHERS,False\nmp-1079156,\"{'Ag': 2.0, 'Cl': 2.0, 'O': 4.0}\",\"('Ag', 'Cl', 'O')\",OTHERS,False\nmp-1475,\"{'Be': 12.0, 'Mo': 1.0}\",\"('Be', 'Mo')\",OTHERS,False\nmp-542610,\"{'Mo': 16.0, 'O': 44.0}\",\"('Mo', 'O')\",OTHERS,False\nmp-1195057,\"{'K': 6.0, 'Ba': 6.0, 'Li': 4.0, 'Al': 8.0, 'B': 12.0, 'O': 40.0, 'F': 2.0}\",\"('Al', 'B', 'Ba', 'F', 'K', 'Li', 'O')\",OTHERS,False\nmp-19391,\"{'Na': 1.0, 'V': 1.0, 'O': 2.0}\",\"('Na', 'O', 'V')\",OTHERS,False\nmp-1096653,\"{'Y': 2.0, 'Ag': 1.0, 'Pb': 1.0}\",\"('Ag', 'Pb', 'Y')\",OTHERS,False\nmp-1217891,\"{'Ta': 1.0, 'Ti': 1.0, 'Al': 6.0}\",\"('Al', 'Ta', 'Ti')\",OTHERS,False\nmp-850747,\"{'Li': 4.0, 'Fe': 8.0, 'P': 8.0, 'H': 4.0, 'O': 32.0}\",\"('Fe', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmp-761592,\"{'Li': 3.0, 'Fe': 2.0, 'Co': 1.0, 'O': 6.0}\",\"('Co', 'Fe', 'Li', 'O')\",OTHERS,False\nmp-1174578,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-13452,\"{'Be': 1.0, 'Pd': 2.0}\",\"('Be', 'Pd')\",OTHERS,False\nmp-979273,\"{'Te': 1.0, 'Pd': 3.0}\",\"('Pd', 'Te')\",OTHERS,False\nmp-1180197,\"{'Mo': 2.0, 'O': 10.0}\",\"('Mo', 'O')\",OTHERS,False\nmp-1182486,\"{'Ba': 2.0, 'H': 32.0, 'O': 20.0}\",\"('Ba', 'H', 'O')\",OTHERS,False\nmp-850763,\"{'Li': 4.0, 'Cr': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-961724,\"{'Zr': 1.0, 'Bi': 1.0, 'Rh': 1.0}\",\"('Bi', 'Rh', 'Zr')\",OTHERS,False\nmp-1183367,\"{'Ba': 1.0, 'Eu': 3.0}\",\"('Ba', 'Eu')\",OTHERS,False\nmp-1173098,\"{'Ba': 6.0, 'Ti': 2.0, 'Nb': 10.0, 'Si': 8.0, 'O': 51.0}\",\"('Ba', 'Nb', 'O', 'Si', 'Ti')\",OTHERS,False\nmp-1224687,\"{'Fe': 2.0, 'Cu': 1.0, 'S': 3.0}\",\"('Cu', 'Fe', 'S')\",OTHERS,False\nmp-636253,\"{'Gd': 1.0, 'Cu': 5.0}\",\"('Cu', 'Gd')\",OTHERS,False\nmp-1073122,\"{'Mg': 8.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1211854,\"{'La': 4.0, 'Mo': 4.0, 'O': 20.0}\",\"('La', 'Mo', 'O')\",OTHERS,False\nmp-569603,\"{'Ba': 4.0, 'Ca': 16.0, 'Cu': 8.0, 'N': 16.0}\",\"('Ba', 'Ca', 'Cu', 'N')\",OTHERS,False\nmp-1229286,\"{'Ba': 51.0, 'Pd': 24.0, 'O': 10.0}\",\"('Ba', 'O', 'Pd')\",OTHERS,False\nmp-758291,\"{'Li': 6.0, 'Sn': 6.0, 'P': 8.0, 'O': 32.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,False\nmp-1190320,\"{'Al': 12.0, 'Ge': 10.0}\",\"('Al', 'Ge')\",OTHERS,False\nmp-1097596,\"{'Sc': 2.0, 'Zn': 1.0, 'Rh': 1.0}\",\"('Rh', 'Sc', 'Zn')\",OTHERS,False\nmp-630227,{'C': 60.0},\"('C',)\",OTHERS,False\nmp-1111483,\"{'Rb': 2.0, 'Cu': 1.0, 'Pd': 1.0, 'F': 6.0}\",\"('Cu', 'F', 'Pd', 'Rb')\",OTHERS,False\nmp-2484,\"{'Sn': 3.0, 'Sm': 1.0}\",\"('Sm', 'Sn')\",OTHERS,False\nmp-552488,\"{'O': 2.0, 'La': 2.0, 'Cu': 2.0, 'Se': 2.0}\",\"('Cu', 'La', 'O', 'Se')\",OTHERS,False\nmp-7394,\"{'S': 4.0, 'Ge': 1.0, 'Ag': 2.0, 'Ba': 1.0}\",\"('Ag', 'Ba', 'Ge', 'S')\",OTHERS,False\nmp-1017533,\"{'Y': 2.0, 'N': 2.0}\",\"('N', 'Y')\",OTHERS,False\nmp-1227818,\"{'Ba': 1.0, 'Sr': 11.0, 'Al': 4.0, 'O': 16.0, 'F': 4.0}\",\"('Al', 'Ba', 'F', 'O', 'Sr')\",OTHERS,False\nAl 55 Cu 25.5 Fe 12.5 Si 7,\"{'Al': 55.0, 'Cu': 25.5, 'Fe': 12.5, 'Si': 7.0}\",\"('Al', 'Cu', 'Fe', 'Si')\",AC,False\nmp-866216,\"{'Ca': 1.0, 'Dy': 1.0, 'Rh': 2.0}\",\"('Ca', 'Dy', 'Rh')\",OTHERS,False\nmp-15237,\"{'C': 10.0, 'Tb': 8.0}\",\"('C', 'Tb')\",OTHERS,False\nmp-985575,\"{'Li': 2.0, 'Ag': 2.0, 'C': 4.0, 'O': 8.0}\",\"('Ag', 'C', 'Li', 'O')\",OTHERS,False\nmp-619775,\"{'Y': 14.0, 'C': 4.0, 'I': 24.0, 'N': 2.0}\",\"('C', 'I', 'N', 'Y')\",OTHERS,False\nmp-1181787,\"{'Fe': 4.0, 'C': 8.0, 'Cl': 4.0, 'O': 18.0}\",\"('C', 'Cl', 'Fe', 'O')\",OTHERS,False\nmp-1247688,\"{'Ca': 8.0, 'Ti': 2.0, 'Mn': 6.0, 'O': 22.0}\",\"('Ca', 'Mn', 'O', 'Ti')\",OTHERS,False\nmvc-10123,\"{'Ho': 2.0, 'Zn': 2.0, 'Mo': 4.0, 'O': 12.0}\",\"('Ho', 'Mo', 'O', 'Zn')\",OTHERS,False\nmp-1202829,\"{'Ba': 8.0, 'Ga': 4.0, 'Bi': 4.0, 'Te': 20.0}\",\"('Ba', 'Bi', 'Ga', 'Te')\",OTHERS,False\nmp-1185600,\"{'Mg': 149.0, 'Os': 1.0}\",\"('Mg', 'Os')\",OTHERS,False\nmp-985594,\"{'Na': 2.0, 'Ag': 2.0, 'C': 4.0, 'O': 8.0}\",\"('Ag', 'C', 'Na', 'O')\",OTHERS,False\nmp-776355,\"{'Li': 1.0, 'V': 6.0, 'O': 7.0, 'F': 5.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-985540,\"{'Ac': 6.0, 'La': 2.0}\",\"('Ac', 'La')\",OTHERS,False\nmp-768377,\"{'Fe': 3.0, 'Cu': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Cu', 'Fe', 'O', 'P')\",OTHERS,False\nmp-756230,\"{'Mn': 2.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('H', 'Mn', 'O', 'P')\",OTHERS,False\nmp-776335,\"{'Zr': 16.0, 'N': 16.0, 'O': 8.0}\",\"('N', 'O', 'Zr')\",OTHERS,False\nmp-1111497,\"{'K': 3.0, 'Bi': 1.0, 'Cl': 6.0}\",\"('Bi', 'Cl', 'K')\",OTHERS,False\nmp-1211590,\"{'La': 5.0, 'Mg': 41.0}\",\"('La', 'Mg')\",OTHERS,False\nmp-755480,\"{'K': 2.0, 'Rb': 2.0, 'O': 2.0}\",\"('K', 'O', 'Rb')\",OTHERS,False\nmp-639496,\"{'Eu': 2.0, 'In': 4.0, 'Au': 2.0}\",\"('Au', 'Eu', 'In')\",OTHERS,False\nmp-28606,\"{'K': 6.0, 'Se': 26.0, 'Au': 2.0}\",\"('Au', 'K', 'Se')\",OTHERS,False\nmp-17673,\"{'Lu': 12.0, 'O': 8.0, 'F': 20.0}\",\"('F', 'Lu', 'O')\",OTHERS,False\nmp-1223171,\"{'Li': 19.0, 'V': 12.0, 'O': 32.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1100171,\"{'Cs': 1.0, 'Mg': 6.0, 'Mo': 1.0}\",\"('Cs', 'Mg', 'Mo')\",OTHERS,False\nmp-22211,\"{'V': 6.0, 'Sn': 2.0}\",\"('Sn', 'V')\",OTHERS,False\nmp-1096622,\"{'Li': 2.0, 'Ca': 1.0, 'Al': 1.0}\",\"('Al', 'Ca', 'Li')\",OTHERS,False\nmp-773466,\"{'Na': 4.0, 'Cu': 12.0, 'O': 16.0}\",\"('Cu', 'Na', 'O')\",OTHERS,False\nmvc-10947,\"{'Al': 2.0, 'Fe': 4.0, 'O': 8.0}\",\"('Al', 'Fe', 'O')\",OTHERS,False\nmp-530048,\"{'Fe': 21.0, 'O': 32.0}\",\"('Fe', 'O')\",OTHERS,False\nmp-1236246,\"{'Li': 1.0, 'Ti': 1.0, 'O': 2.0}\",\"('Li', 'O', 'Ti')\",OTHERS,False\nmp-772237,\"{'Na': 2.0, 'Li': 10.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'Na', 'O', 'P')\",OTHERS,False\nmp-23745,\"{'H': 16.0, 'N': 4.0, 'O': 8.0, 'Se': 2.0}\",\"('H', 'N', 'O', 'Se')\",OTHERS,False\nZn 75 Sc 15 Mn 10,\"{'Zn': 75.0, 'Sc': 15.0, 'Mn': 10.0}\",\"('Mn', 'Sc', 'Zn')\",QC,False\nmp-769502,\"{'Li': 4.0, 'Nb': 2.0, 'Fe': 3.0, 'O': 10.0}\",\"('Fe', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-1187598,\"{'Tm': 2.0, 'Mg': 1.0, 'Cd': 1.0}\",\"('Cd', 'Mg', 'Tm')\",OTHERS,False\nmp-19,{'Te': 3.0},\"('Te',)\",OTHERS,False\nmp-40685,\"{'Na': 2.0, 'O': 28.0, 'Sb': 4.0, 'Sm': 6.0, 'Ti': 4.0}\",\"('Na', 'O', 'Sb', 'Sm', 'Ti')\",OTHERS,False\nmp-1196623,\"{'Cu': 6.0, 'Ag': 4.0, 'Bi': 14.0, 'Pb': 6.0, 'S': 32.0}\",\"('Ag', 'Bi', 'Cu', 'Pb', 'S')\",OTHERS,False\nmvc-9221,\"{'Mg': 4.0, 'Fe': 4.0, 'Bi': 4.0, 'O': 20.0}\",\"('Bi', 'Fe', 'Mg', 'O')\",OTHERS,False\nmp-6067,\"{'O': 48.0, 'S': 12.0, 'Cd': 8.0, 'Tl': 8.0}\",\"('Cd', 'O', 'S', 'Tl')\",OTHERS,False\nmp-1180390,\"{'Mg': 4.0, 'Te': 4.0, 'I': 24.0, 'O': 24.0}\",\"('I', 'Mg', 'O', 'Te')\",OTHERS,False\nmp-1217196,\"{'Ti': 5.0, 'Mn': 1.0, 'S': 10.0}\",\"('Mn', 'S', 'Ti')\",OTHERS,False\nmp-581868,\"{'Na': 4.0, 'Y': 4.0, 'I': 16.0, 'O': 48.0}\",\"('I', 'Na', 'O', 'Y')\",OTHERS,False\nmp-1205022,\"{'Cs': 16.0, 'Te': 112.0}\",\"('Cs', 'Te')\",OTHERS,False\nmp-1226853,\"{'Ce': 5.0, 'Bi': 1.0, 'Sb': 4.0}\",\"('Bi', 'Ce', 'Sb')\",OTHERS,False\nmp-542459,\"{'Ba': 4.0, 'Ge': 8.0, 'Ga': 8.0, 'O': 32.0}\",\"('Ba', 'Ga', 'Ge', 'O')\",OTHERS,False\nmp-849731,\"{'Li': 1.0, 'Ti': 1.0, 'V': 2.0, 'O': 6.0}\",\"('Li', 'O', 'Ti', 'V')\",OTHERS,False\nmp-504149,\"{'Fe': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-1187702,\"{'V': 1.0, 'W': 3.0}\",\"('V', 'W')\",OTHERS,False\nmp-556046,\"{'Sr': 2.0, 'Ga': 4.0, 'B': 4.0, 'O': 14.0}\",\"('B', 'Ga', 'O', 'Sr')\",OTHERS,False\nmp-1222250,\"{'Mg': 4.0, 'Al': 2.0, 'H': 12.0, 'C': 1.0, 'O': 18.0}\",\"('Al', 'C', 'H', 'Mg', 'O')\",OTHERS,False\nmvc-10619,\"{'V': 6.0, 'P': 6.0, 'O': 26.0}\",\"('O', 'P', 'V')\",OTHERS,False\nmp-22765,\"{'Si': 6.0, 'Pd': 2.0, 'Eu': 4.0}\",\"('Eu', 'Pd', 'Si')\",OTHERS,False\nmp-1009746,\"{'Sc': 1.0, 'P': 1.0}\",\"('P', 'Sc')\",OTHERS,False\nmp-546810,\"{'O': 4.0, 'C': 4.0, 'Rb': 2.0}\",\"('C', 'O', 'Rb')\",OTHERS,False\nmp-685544,\"{'Ga': 24.0, 'Cu': 12.0, 'O': 48.0}\",\"('Cu', 'Ga', 'O')\",OTHERS,False\nmp-28168,\"{'C': 2.0, 'Br': 28.0, 'Th': 12.0}\",\"('Br', 'C', 'Th')\",OTHERS,False\nmp-1226584,\"{'Ce': 1.0, 'Si': 1.0, 'B': 1.0, 'Rh': 3.0}\",\"('B', 'Ce', 'Rh', 'Si')\",OTHERS,False\nmp-1246633,\"{'Mg': 2.0, 'V': 2.0, 'Ga': 2.0, 'S': 8.0}\",\"('Ga', 'Mg', 'S', 'V')\",OTHERS,False\nmp-1178260,\"{'Fe': 10.0, 'O': 14.0, 'F': 6.0}\",\"('F', 'Fe', 'O')\",OTHERS,False\nmvc-3347,\"{'Mg': 4.0, 'Cr': 4.0, 'O': 8.0}\",\"('Cr', 'Mg', 'O')\",OTHERS,False\nmp-1029730,\"{'Ca': 8.0, 'Hf': 2.0, 'N': 8.0}\",\"('Ca', 'Hf', 'N')\",OTHERS,False\nmp-1032466,\"{'Sr': 1.0, 'Mg': 6.0, 'Mn': 1.0, 'O': 8.0}\",\"('Mg', 'Mn', 'O', 'Sr')\",OTHERS,False\nmvc-7046,\"{'Si': 16.0, 'Mo': 8.0, 'O': 48.0}\",\"('Mo', 'O', 'Si')\",OTHERS,False\nZn 76 Mg 17 Hf 7,\"{'Zn': 76.0, 'Mg': 17.0, 'Hf': 7.0}\",\"('Hf', 'Mg', 'Zn')\",QC,False\nmp-1245175,\"{'Ta': 50.0, 'N': 50.0}\",\"('N', 'Ta')\",OTHERS,False\nmp-755110,\"{'Cs': 4.0, 'Mn': 2.0, 'O': 8.0}\",\"('Cs', 'Mn', 'O')\",OTHERS,False\nmp-1036013,\"{'Y': 1.0, 'Mg': 14.0, 'Cu': 1.0, 'O': 16.0}\",\"('Cu', 'Mg', 'O', 'Y')\",OTHERS,False\nmp-1200491,\"{'K': 8.0, 'Al': 8.0, 'P': 8.0, 'O': 40.0}\",\"('Al', 'K', 'O', 'P')\",OTHERS,False\nmp-9596,\"{'B': 8.0, 'La': 2.0, 'Ir': 8.0}\",\"('B', 'Ir', 'La')\",OTHERS,False\nmp-865779,\"{'Ga': 2.0, 'Co': 1.0, 'Ru': 1.0}\",\"('Co', 'Ga', 'Ru')\",OTHERS,False\nmp-1032523,\"{'Mg': 6.0, 'Fe': 1.0, 'Si': 1.0, 'O': 8.0}\",\"('Fe', 'Mg', 'O', 'Si')\",OTHERS,False\nmp-1216131,\"{'Y': 2.0, 'O': 3.0, 'F': 3.0}\",\"('F', 'O', 'Y')\",OTHERS,False\nmp-1747,\"{'K': 2.0, 'Te': 1.0}\",\"('K', 'Te')\",OTHERS,False\nmp-1214225,\"{'C': 16.0, 'S': 24.0, 'I': 8.0}\",\"('C', 'I', 'S')\",OTHERS,False\nmp-1246689,\"{'Mg': 2.0, 'Ga': 2.0, 'Mo': 2.0, 'S': 8.0}\",\"('Ga', 'Mg', 'Mo', 'S')\",OTHERS,False\nmp-637263,\"{'Zr': 10.0, 'Al': 2.0, 'Ni': 8.0}\",\"('Al', 'Ni', 'Zr')\",OTHERS,False\nmp-1191489,\"{'Ca': 2.0, 'Al': 4.0, 'O': 8.0, 'F': 8.0}\",\"('Al', 'Ca', 'F', 'O')\",OTHERS,False\nmp-757982,\"{'In': 4.0, 'H': 12.0, 'O': 12.0}\",\"('H', 'In', 'O')\",OTHERS,False\nmp-765894,\"{'Li': 5.0, 'V': 1.0, 'F': 8.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-541221,\"{'Ba': 6.0, 'N': 12.0, 'O': 30.0, 'H': 12.0}\",\"('Ba', 'H', 'N', 'O')\",OTHERS,False\nmp-2723,\"{'O': 4.0, 'Ir': 2.0}\",\"('Ir', 'O')\",OTHERS,False\nmp-562631,\"{'K': 4.0, 'S': 2.0, 'O': 8.0}\",\"('K', 'O', 'S')\",OTHERS,False\nmp-1111490,\"{'K': 3.0, 'In': 1.0, 'Br': 6.0}\",\"('Br', 'In', 'K')\",OTHERS,False\nmp-571350,\"{'Ba': 2.0, 'As': 4.0, 'Pd': 4.0}\",\"('As', 'Ba', 'Pd')\",OTHERS,False\nmp-1184672,\"{'Hf': 2.0, 'Ti': 6.0}\",\"('Hf', 'Ti')\",OTHERS,False\nmp-632692,\"{'Li': 1.0, 'Fe': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-1205470,\"{'Ca': 4.0, 'Hg': 4.0, 'H': 64.0, 'Br': 16.0, 'O': 32.0}\",\"('Br', 'Ca', 'H', 'Hg', 'O')\",OTHERS,False\nmp-41742,\"{'Ca': 2.0, 'Nd': 2.0, 'Ti': 2.0, 'Mn': 2.0, 'O': 12.0}\",\"('Ca', 'Mn', 'Nd', 'O', 'Ti')\",OTHERS,False\nmp-1818,\"{'F': 4.0, 'Si': 1.0}\",\"('F', 'Si')\",OTHERS,False\nmp-2075,\"{'N': 8.0, 'Si': 6.0}\",\"('N', 'Si')\",OTHERS,False\nmp-18649,\"{'Mn': 6.0, 'Ge': 6.0, 'Rh': 6.0}\",\"('Ge', 'Mn', 'Rh')\",OTHERS,False\nmp-1079867,\"{'Li': 4.0, 'Pr': 2.0, 'Ge': 2.0}\",\"('Ge', 'Li', 'Pr')\",OTHERS,False\nmp-30564,\"{'Co': 2.0, 'Th': 2.0}\",\"('Co', 'Th')\",OTHERS,False\nmp-1219972,\"{'Pr': 2.0, 'Ga': 2.0, 'Si': 2.0}\",\"('Ga', 'Pr', 'Si')\",OTHERS,False\nmp-753276,\"{'Li': 2.0, 'Co': 1.0, 'Ni': 1.0, 'O': 4.0}\",\"('Co', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-23201,\"{'Ba': 1.0, 'Bi': 3.0}\",\"('Ba', 'Bi')\",OTHERS,False\nmp-569935,\"{'La': 3.0, 'B': 2.0, 'N': 4.0}\",\"('B', 'La', 'N')\",OTHERS,False\nmp-504732,\"{'Mn': 12.0, 'Ti': 12.0, 'O': 4.0}\",\"('Mn', 'O', 'Ti')\",OTHERS,False\nmp-1076782,\"{'Ba': 1.0, 'Co': 1.0, 'O': 3.0}\",\"('Ba', 'Co', 'O')\",OTHERS,False\nmp-757068,\"{'Li': 4.0, 'Cr': 1.0, 'Ni': 3.0, 'P': 4.0, 'O': 16.0}\",\"('Cr', 'Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-770610,\"{'Li': 8.0, 'Al': 4.0, 'Co': 4.0, 'O': 16.0}\",\"('Al', 'Co', 'Li', 'O')\",OTHERS,False\nmp-1263325,\"{'Al': 1.0, 'Ni': 1.0, 'F': 5.0}\",\"('Al', 'F', 'Ni')\",OTHERS,False\nmp-698018,\"{'Li': 2.0, 'Al': 2.0, 'Si': 4.0, 'H': 4.0, 'O': 14.0}\",\"('Al', 'H', 'Li', 'O', 'Si')\",OTHERS,False\nmp-1216900,\"{'Tl': 1.0, 'V': 2.0, 'Cr': 3.0, 'S': 8.0}\",\"('Cr', 'S', 'Tl', 'V')\",OTHERS,False\nmp-760794,\"{'Li': 8.0, 'V': 8.0, 'F': 32.0}\",\"('F', 'Li', 'V')\",OTHERS,False\nmp-1229173,\"{'Ba': 12.0, 'Sm': 4.0, 'Al': 3.0, 'Co': 5.0, 'O': 30.0}\",\"('Al', 'Ba', 'Co', 'O', 'Sm')\",OTHERS,False\nmp-1221360,\"{'Na': 2.0, 'Nb': 2.0, 'W': 2.0, 'O': 13.0}\",\"('Na', 'Nb', 'O', 'W')\",OTHERS,False\nmp-756651,\"{'Li': 6.0, 'Mn': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Li', 'Mn', 'O', 'P')\",OTHERS,False\nmp-1217172,\"{'Ti': 5.0, 'S': 8.0}\",\"('S', 'Ti')\",OTHERS,False\nmp-1228335,\"{'Ba': 4.0, 'Ti': 1.0, 'Al': 3.0, 'P': 4.0, 'O': 20.0, 'F': 4.0}\",\"('Al', 'Ba', 'F', 'O', 'P', 'Ti')\",OTHERS,False\nmp-12570,\"{'Th': 1.0, 'B': 12.0}\",\"('B', 'Th')\",OTHERS,False\nmp-1086668,\"{'La': 2.0, 'Sn': 4.0, 'Rh': 2.0}\",\"('La', 'Rh', 'Sn')\",OTHERS,False\nmp-1244593,\"{'Ca': 2.0, 'Ti': 2.0, 'Bi': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Bi', 'Ca', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1211455,\"{'K': 2.0, 'Gd': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Gd', 'K', 'Mo', 'O')\",OTHERS,False\nmp-1209439,\"{'Rb': 8.0, 'Ta': 6.0, 'O': 19.0}\",\"('O', 'Rb', 'Ta')\",OTHERS,False\nmp-1034435,\"{'Ba': 1.0, 'Mg': 14.0, 'Cr': 1.0, 'O': 16.0}\",\"('Ba', 'Cr', 'Mg', 'O')\",OTHERS,False\nmp-644841,\"{'K': 8.0, 'Pd': 4.0, 'N': 16.0, 'O': 32.0}\",\"('K', 'N', 'O', 'Pd')\",OTHERS,False\nmp-1228840,\"{'Al': 1.0, 'V': 1.0, 'Ni': 2.0}\",\"('Al', 'Ni', 'V')\",OTHERS,False\nmp-20024,\"{'Cu': 2.0, 'Sn': 2.0, 'La': 2.0}\",\"('Cu', 'La', 'Sn')\",OTHERS,False\nmp-707897,\"{'Ca': 4.0, 'Al': 2.0, 'H': 22.0, 'C': 1.0, 'O': 20.0}\",\"('Al', 'C', 'Ca', 'H', 'O')\",OTHERS,False\nmp-1221811,\"{'Mn': 3.0, 'Ni': 1.0, 'O': 4.0}\",\"('Mn', 'Ni', 'O')\",OTHERS,False\nmp-776476,\"{'Cd': 4.0, 'Fe': 4.0, 'O': 12.0}\",\"('Cd', 'Fe', 'O')\",OTHERS,False\nmp-1192549,\"{'Ba': 4.0, 'U': 2.0, 'Cu': 8.0, 'Se': 12.0}\",\"('Ba', 'Cu', 'Se', 'U')\",OTHERS,False\nmp-14324,\"{'Be': 4.0, 'O': 10.0, 'Na': 8.0, 'K': 4.0}\",\"('Be', 'K', 'Na', 'O')\",OTHERS,False\nAl 75 Ru 10 Pd 15,\"{'Al': 75.0, 'Ru': 10.0, 'Pd': 15.0}\",\"('Al', 'Pd', 'Ru')\",QC,False\nmp-1218002,\"{'Ta': 2.0, 'Mo': 1.0, 'S': 6.0}\",\"('Mo', 'S', 'Ta')\",OTHERS,False\nmp-561500,\"{'Cs': 4.0, 'Na': 2.0, 'V': 2.0, 'F': 12.0}\",\"('Cs', 'F', 'Na', 'V')\",OTHERS,False\nmp-530214,\"{'Fe': 16.0, 'Ni': 8.0, 'O': 32.0}\",\"('Fe', 'Ni', 'O')\",OTHERS,False\nmp-1224887,\"{'Fe': 6.0, 'Ni': 6.0, 'B': 4.0}\",\"('B', 'Fe', 'Ni')\",OTHERS,False\nmp-643378,\"{'Cu': 1.0, 'H': 4.0, 'Pb': 2.0, 'Cl': 2.0, 'O': 4.0}\",\"('Cl', 'Cu', 'H', 'O', 'Pb')\",OTHERS,False\nmp-1185057,\"{'K': 3.0, 'Yb': 1.0}\",\"('K', 'Yb')\",OTHERS,False\nmp-698602,\"{'Sr': 5.0, 'La': 5.0, 'Mn': 9.0, 'Cu': 1.0, 'O': 30.0}\",\"('Cu', 'La', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1095643,\"{'Nb': 4.0, 'Cr': 8.0}\",\"('Cr', 'Nb')\",OTHERS,False\nmp-586092,\"{'Li': 12.0, 'Fe': 20.0, 'O': 32.0}\",\"('Fe', 'Li', 'O')\",OTHERS,False\nmp-760397,\"{'Li': 1.0, 'Co': 1.0, 'Cu': 1.0, 'O': 4.0}\",\"('Co', 'Cu', 'Li', 'O')\",OTHERS,False\nmp-1104271,\"{'Ag': 6.0, 'Sb': 2.0, 'S': 6.0}\",\"('Ag', 'S', 'Sb')\",OTHERS,False\nmp-866192,\"{'Yb': 1.0, 'Li': 2.0, 'Sn': 1.0}\",\"('Li', 'Sn', 'Yb')\",OTHERS,False\nmp-1105780,\"{'Bi': 8.0, 'O': 12.0}\",\"('Bi', 'O')\",OTHERS,False\nmp-26944,\"{'O': 20.0, 'P': 6.0, 'Sn': 4.0}\",\"('O', 'P', 'Sn')\",OTHERS,False\nmp-753438,\"{'Li': 8.0, 'V': 4.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,False\nmp-554272,\"{'Cu': 24.0, 'Sb': 8.0, 'S': 24.0}\",\"('Cu', 'S', 'Sb')\",OTHERS,False\nmp-1103730,\"{'Na': 4.0, 'Mg': 1.0, 'Ge': 2.0, 'Se': 6.0}\",\"('Ge', 'Mg', 'Na', 'Se')\",OTHERS,False\nmp-15889,\"{'O': 12.0, 'Ba': 4.0, 'La': 2.0, 'Ir': 2.0}\",\"('Ba', 'Ir', 'La', 'O')\",OTHERS,False\nmp-1209233,\"{'Sc': 22.0, 'Ga': 20.0}\",\"('Ga', 'Sc')\",OTHERS,False\nmp-1214747,\"{'Ba': 2.0, 'Ca': 2.0, 'Nd': 1.0, 'Ti': 2.0, 'Cu': 2.0, 'O': 12.0}\",\"('Ba', 'Ca', 'Cu', 'Nd', 'O', 'Ti')\",OTHERS,False\nmp-17968,\"{'O': 24.0, 'Na': 4.0, 'Ca': 2.0, 'V': 8.0}\",\"('Ca', 'Na', 'O', 'V')\",OTHERS,False\nmp-3928,\"{'O': 20.0, 'Na': 10.0, 'P': 6.0}\",\"('Na', 'O', 'P')\",OTHERS,False\nmp-559826,\"{'Er': 4.0, 'Cu': 4.0, 'S': 8.0}\",\"('Cu', 'Er', 'S')\",OTHERS,False\nmp-772060,\"{'Li': 3.0, 'Nb': 1.0, 'Fe': 3.0, 'O': 8.0}\",\"('Fe', 'Li', 'Nb', 'O')\",OTHERS,False\nmp-644278,\"{'Y': 2.0, 'H': 2.0, 'C': 1.0}\",\"('C', 'H', 'Y')\",OTHERS,False\nmp-1186783,\"{'Pt': 3.0, 'Cl': 1.0}\",\"('Cl', 'Pt')\",OTHERS,False\nmp-762271,\"{'Li': 2.0, 'V': 3.0, 'O': 6.0}\",\"('Li', 'O', 'V')\",OTHERS,False\nmp-1097261,\"{'Y': 1.0, 'Hf': 1.0, 'Rh': 2.0}\",\"('Hf', 'Rh', 'Y')\",OTHERS,False\nmp-1213717,\"{'Cs': 8.0, 'Sb': 4.0, 'F': 20.0}\",\"('Cs', 'F', 'Sb')\",OTHERS,False\nmp-622258,\"{'Rb': 4.0, 'V': 8.0, 'Sb': 4.0, 'O': 32.0}\",\"('O', 'Rb', 'Sb', 'V')\",OTHERS,False\nmp-555387,\"{'Ba': 4.0, 'Si': 8.0, 'B': 8.0, 'O': 32.0}\",\"('B', 'Ba', 'O', 'Si')\",OTHERS,False\nmp-554084,\"{'Ba': 1.0, 'Bi': 6.0, 'P': 4.0, 'O': 20.0}\",\"('Ba', 'Bi', 'O', 'P')\",OTHERS,False\nmp-771949,\"{'Ti': 1.0, 'Mn': 3.0, 'P': 4.0, 'O': 16.0}\",\"('Mn', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1112417,\"{'K': 2.0, 'Ta': 1.0, 'Au': 1.0, 'F': 6.0}\",\"('Au', 'F', 'K', 'Ta')\",OTHERS,False\nmp-5400,\"{'Si': 2.0, 'Cr': 2.0, 'Th': 1.0}\",\"('Cr', 'Si', 'Th')\",OTHERS,False\nmp-756644,\"{'Li': 8.0, 'Fe': 7.0, 'O': 15.0}\",\"('Fe', 'Li', 'O')\",OTHERS,False\nmp-1223910,\"{'Ho': 2.0, 'Co': 2.0, 'Ni': 2.0}\",\"('Co', 'Ho', 'Ni')\",OTHERS,False\nmp-1188063,\"{'Yb': 3.0, 'Ce': 1.0}\",\"('Ce', 'Yb')\",OTHERS,False\nmp-4533,\"{'O': 6.0, 'Na': 4.0, 'Si': 2.0}\",\"('Na', 'O', 'Si')\",OTHERS,False\nmp-621981,\"{'Tl': 8.0, 'Ag': 8.0, 'C': 16.0, 'N': 16.0}\",\"('Ag', 'C', 'N', 'Tl')\",OTHERS,False\nmp-559985,\"{'Ca': 4.0, 'P': 16.0, 'O': 44.0}\",\"('Ca', 'O', 'P')\",OTHERS,False\nmp-1206259,\"{'Tm': 3.0, 'Mg': 3.0, 'Au': 3.0}\",\"('Au', 'Mg', 'Tm')\",OTHERS,False\nmp-1033791,\"{'Mg': 14.0, 'Cr': 1.0, 'C': 1.0, 'O': 16.0}\",\"('C', 'Cr', 'Mg', 'O')\",OTHERS,False\nmp-12962,\"{'Fe': 1.0, 'Zr': 6.0, 'Sb': 2.0}\",\"('Fe', 'Sb', 'Zr')\",OTHERS,False\nmp-27659,\"{'Pu': 1.0, 'Pt': 4.0}\",\"('Pt', 'Pu')\",OTHERS,False\nmp-976972,\"{'Ho': 1.0, 'Tm': 1.0, 'Cu': 2.0}\",\"('Cu', 'Ho', 'Tm')\",OTHERS,False\nmp-1175361,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-865258,\"{'Tb': 1.0, 'Yb': 1.0, 'Rh': 2.0}\",\"('Rh', 'Tb', 'Yb')\",OTHERS,False\nmp-12664,\"{'Be': 12.0, 'Au': 1.0}\",\"('Au', 'Be')\",OTHERS,False\nmp-1077045,\"{'Ti': 4.0, 'H': 2.0}\",\"('H', 'Ti')\",OTHERS,False\nmp-1217848,\"{'Tb': 2.0, 'Cu': 6.0, 'S': 6.0}\",\"('Cu', 'S', 'Tb')\",OTHERS,False\nmp-1078823,\"{'Cs': 2.0, 'Zr': 1.0, 'Ag': 2.0, 'Te': 4.0}\",\"('Ag', 'Cs', 'Te', 'Zr')\",OTHERS,False\nmp-977372,\"{'Pm': 2.0, 'Sn': 1.0, 'Hg': 1.0}\",\"('Hg', 'Pm', 'Sn')\",OTHERS,False\nmp-1189442,\"{'Tm': 12.0, 'Pt': 4.0}\",\"('Pt', 'Tm')\",OTHERS,False\nmp-13771,\"{'O': 48.0, 'Sc': 8.0, 'Ge': 12.0, 'Cd': 12.0}\",\"('Cd', 'Ge', 'O', 'Sc')\",OTHERS,False\nmp-1104709,\"{'Sm': 1.0, 'Mn': 6.0, 'Sn': 6.0}\",\"('Mn', 'Sm', 'Sn')\",OTHERS,False\nmp-1111060,\"{'K': 1.0, 'Na': 2.0, 'Al': 1.0, 'F': 6.0}\",\"('Al', 'F', 'K', 'Na')\",OTHERS,False\nmp-560464,\"{'U': 4.0, 'Tl': 8.0, 'Te': 8.0, 'O': 32.0}\",\"('O', 'Te', 'Tl', 'U')\",OTHERS,False\nmp-1077866,\"{'Ba': 1.0, 'Zn': 1.0, 'B': 1.0, 'O': 3.0, 'F': 1.0}\",\"('B', 'Ba', 'F', 'O', 'Zn')\",OTHERS,False\nmp-990091,\"{'Ag': 8.0, 'W': 4.0, 'S': 16.0}\",\"('Ag', 'S', 'W')\",OTHERS,False\nmp-978096,\"{'Pu': 3.0, 'Au': 1.0}\",\"('Au', 'Pu')\",OTHERS,False\nmp-647867,\"{'La': 16.0, 'Mo': 28.0, 'O': 108.0}\",\"('La', 'Mo', 'O')\",OTHERS,False\nmp-1218971,\"{'Sm': 1.0, 'Th': 1.0, 'N': 2.0}\",\"('N', 'Sm', 'Th')\",OTHERS,False\nmp-30774,\"{'Mg': 1.0, 'Ni': 2.0, 'Sn': 1.0}\",\"('Mg', 'Ni', 'Sn')\",OTHERS,False\nmp-15359,\"{'B': 4.0, 'O': 12.0, 'Al': 3.0, 'Gd': 1.0}\",\"('Al', 'B', 'Gd', 'O')\",OTHERS,False\nmp-773158,\"{'Li': 12.0, 'Fe': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,False\nmp-600032,\"{'Si': 48.0, 'O': 96.0}\",\"('O', 'Si')\",OTHERS,False\nmp-541628,\"{'Cs': 4.0, 'Te': 4.0, 'F': 20.0}\",\"('Cs', 'F', 'Te')\",OTHERS,False\nmp-753795,\"{'Li': 12.0, 'Bi': 4.0, 'O': 12.0}\",\"('Bi', 'Li', 'O')\",OTHERS,False\nmp-1073575,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-685196,\"{'Tl': 4.0, 'Ag': 32.0, 'Te': 22.0}\",\"('Ag', 'Te', 'Tl')\",OTHERS,False\nmp-1078889,\"{'La': 2.0, 'As': 4.0, 'Ir': 4.0}\",\"('As', 'Ir', 'La')\",OTHERS,False\nmp-1177019,\"{'Li': 7.0, 'Fe': 1.0, 'Ni': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Li', 'Ni', 'O', 'P')\",OTHERS,False\nmp-774797,\"{'Li': 8.0, 'Ti': 12.0, 'Zn': 4.0, 'O': 32.0}\",\"('Li', 'O', 'Ti', 'Zn')\",OTHERS,False\nmp-1227409,\"{'Bi': 1.0, 'As': 1.0, 'Pd': 6.0}\",\"('As', 'Bi', 'Pd')\",OTHERS,False\nmp-1008631,\"{'V': 1.0, 'Co': 1.0, 'Te': 1.0}\",\"('Co', 'Te', 'V')\",OTHERS,False\nmp-1114589,\"{'Eu': 1.0, 'Rb': 2.0, 'Na': 1.0, 'Cl': 6.0}\",\"('Cl', 'Eu', 'Na', 'Rb')\",OTHERS,False\nmp-1095431,\"{'Yb': 4.0, 'Ga': 4.0, 'Ni': 4.0}\",\"('Ga', 'Ni', 'Yb')\",OTHERS,False\nmp-1246312,\"{'Hf': 4.0, 'Cr': 4.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cr', 'Cu', 'Hf', 'S')\",OTHERS,False\nmp-17092,\"{'Sc': 6.0, 'Pd': 6.0, 'Sn': 6.0}\",\"('Pd', 'Sc', 'Sn')\",OTHERS,False\nmp-1211829,\"{'K': 2.0, 'Ce': 2.0, 'S': 4.0, 'O': 16.0}\",\"('Ce', 'K', 'O', 'S')\",OTHERS,False\nmp-1226015,\"{'Co': 2.0, 'Ni': 2.0, 'Ge': 2.0}\",\"('Co', 'Ge', 'Ni')\",OTHERS,False\nmp-1112922,\"{'Cs': 2.0, 'Sb': 1.0, 'Au': 1.0, 'I': 6.0}\",\"('Au', 'Cs', 'I', 'Sb')\",OTHERS,False\nmp-1184372,\"{'Eu': 2.0, 'Sb': 1.0, 'Au': 1.0}\",\"('Au', 'Eu', 'Sb')\",OTHERS,False\nmp-866009,\"{'Dy': 1.0, 'Zr': 1.0, 'Ru': 2.0}\",\"('Dy', 'Ru', 'Zr')\",OTHERS,False\nmp-1202819,\"{'Sr': 8.0, 'B': 20.0, 'H': 4.0, 'O': 40.0}\",\"('B', 'H', 'O', 'Sr')\",OTHERS,False\nmp-776264,\"{'Li': 2.0, 'Fe': 2.0, 'F': 8.0}\",\"('F', 'Fe', 'Li')\",OTHERS,False\nmp-755520,\"{'Na': 1.0, 'Mn': 1.0, 'O': 2.0}\",\"('Mn', 'Na', 'O')\",OTHERS,False\nmp-2041,\"{'Zn': 4.0, 'Ho': 2.0}\",\"('Ho', 'Zn')\",OTHERS,False\nmp-866106,\"{'Ba': 2.0, 'Hg': 1.0, 'Pb': 1.0}\",\"('Ba', 'Hg', 'Pb')\",OTHERS,False\nmp-1094098,\"{'Na': 2.0, 'Ga': 2.0, 'Te': 4.0}\",\"('Ga', 'Na', 'Te')\",OTHERS,False\nmp-865141,\"{'Lu': 4.0, 'Ni': 13.0, 'C': 4.0}\",\"('C', 'Lu', 'Ni')\",OTHERS,False\nmp-1196551,\"{'Rb': 7.0, 'Sm': 1.0, 'Fe': 6.0, 'P': 8.0, 'O': 34.0}\",\"('Fe', 'O', 'P', 'Rb', 'Sm')\",OTHERS,False\nmp-8678,\"{'O': 8.0, 'F': 2.0, 'Na': 2.0, 'Al': 2.0, 'P': 2.0}\",\"('Al', 'F', 'Na', 'O', 'P')\",OTHERS,False\nmp-12160,\"{'Li': 24.0, 'B': 12.0, 'O': 36.0, 'Ho': 4.0}\",\"('B', 'Ho', 'Li', 'O')\",OTHERS,False\nmp-33333,\"{'Na': 2.0, 'Sb': 2.0, 'Se': 4.0}\",\"('Na', 'Sb', 'Se')\",OTHERS,False\nmp-555319,\"{'Rb': 12.0, 'Ti': 12.0, 'P': 20.0, 'O': 80.0}\",\"('O', 'P', 'Rb', 'Ti')\",OTHERS,False\nmp-4473,\"{'Cu': 8.0, 'Se': 8.0, 'Ba': 4.0}\",\"('Ba', 'Cu', 'Se')\",OTHERS,False\nmp-1232136,\"{'Pr': 4.0, 'Mg': 4.0, 'Se': 12.0}\",\"('Mg', 'Pr', 'Se')\",OTHERS,False\nmp-9947,\"{'C': 7.0, 'Si': 7.0}\",\"('C', 'Si')\",OTHERS,False\nmp-760113,\"{'Li': 8.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1208544,\"{'Tb': 8.0, 'Si': 16.0, 'C': 4.0, 'N': 24.0}\",\"('C', 'N', 'Si', 'Tb')\",OTHERS,False\nmp-18622,\"{'P': 8.0, 'Hf': 14.0}\",\"('Hf', 'P')\",OTHERS,False\nmp-19187,\"{'O': 14.0, 'Na': 2.0, 'P': 4.0, 'Co': 1.0, 'Zr': 1.0}\",\"('Co', 'Na', 'O', 'P', 'Zr')\",OTHERS,False\nmp-1206826,\"{'La': 4.0, 'Si': 1.0, 'I': 5.0}\",\"('I', 'La', 'Si')\",OTHERS,False\nmp-1023934,\"{'Mo': 1.0, 'Se': 2.0}\",\"('Mo', 'Se')\",OTHERS,False\nmp-644758,\"{'Fe': 8.0, 'Mo': 16.0, 'N': 4.0}\",\"('Fe', 'Mo', 'N')\",OTHERS,False\nmp-7152,\"{'Cu': 2.0, 'Se': 6.0, 'Zr': 2.0, 'Cs': 2.0}\",\"('Cs', 'Cu', 'Se', 'Zr')\",OTHERS,False\nmp-559307,\"{'Cu': 12.0, 'P': 16.0, 'S': 12.0, 'I': 12.0}\",\"('Cu', 'I', 'P', 'S')\",OTHERS,False\nmp-776250,\"{'Zr': 4.0, 'N': 4.0, 'O': 2.0}\",\"('N', 'O', 'Zr')\",OTHERS,False\nmp-1224088,\"{'Ho': 1.0, 'Al': 6.0, 'Fe': 6.0}\",\"('Al', 'Fe', 'Ho')\",OTHERS,False\nmp-757698,\"{'Mn': 23.0, 'Fe': 1.0, 'O': 32.0}\",\"('Fe', 'Mn', 'O')\",OTHERS,False\nmp-1211074,\"{'Li': 3.0, 'Pt': 3.0, 'O': 6.0}\",\"('Li', 'O', 'Pt')\",OTHERS,False\nmp-1069042,\"{'Eu': 1.0, 'Zn': 2.0, 'Sb': 2.0}\",\"('Eu', 'Sb', 'Zn')\",OTHERS,False\nmp-1225649,\"{'Er': 4.0, 'Al': 4.0, 'Fe': 4.0}\",\"('Al', 'Er', 'Fe')\",OTHERS,False\nmp-1198347,\"{'Tb': 12.0, 'Al': 86.0, 'Cr': 8.0}\",\"('Al', 'Cr', 'Tb')\",OTHERS,False\nmp-773011,\"{'Dy': 8.0, 'Ge': 8.0, 'O': 28.0}\",\"('Dy', 'Ge', 'O')\",OTHERS,False\nmvc-5939,\"{'Mg': 2.0, 'Ti': 1.0, 'W': 1.0, 'O': 6.0}\",\"('Mg', 'O', 'Ti', 'W')\",OTHERS,False\nmp-581877,\"{'Cs': 6.0, 'Zr': 3.0, 'Si': 18.0, 'O': 45.0}\",\"('Cs', 'O', 'Si', 'Zr')\",OTHERS,False\nmp-1185250,\"{'Er': 1.0, 'Mg': 149.0}\",\"('Er', 'Mg')\",OTHERS,False\nmp-26173,\"{'Li': 1.0, 'Bi': 3.0, 'P': 2.0, 'O': 10.0}\",\"('Bi', 'Li', 'O', 'P')\",OTHERS,False\nmp-1217056,\"{'U': 7.0, 'V': 5.0, 'Ag': 3.0, 'O': 35.0}\",\"('Ag', 'O', 'U', 'V')\",OTHERS,False\nmp-1199352,\"{'Sb': 4.0, 'Xe': 4.0, 'F': 28.0}\",\"('F', 'Sb', 'Xe')\",OTHERS,False\nmp-1094395,\"{'Mg': 6.0, 'Ti': 2.0}\",\"('Mg', 'Ti')\",OTHERS,False\nmp-1215095,\"{'B': 8.0, 'N': 4.0, 'O': 22.0}\",\"('B', 'N', 'O')\",OTHERS,False\nmp-1174569,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1208866,\"{'Si': 2.0, 'P': 4.0, 'Ir': 1.0}\",\"('Ir', 'P', 'Si')\",OTHERS,False\nmp-1201801,\"{'Np': 4.0, 'Co': 2.0, 'O': 16.0, 'F': 20.0}\",\"('Co', 'F', 'Np', 'O')\",OTHERS,False\nmp-1173004,\"{'Mo': 6.0, 'O': 16.0}\",\"('Mo', 'O')\",OTHERS,False\nmp-1186313,\"{'Nd': 1.0, 'Ho': 1.0, 'Zn': 2.0}\",\"('Ho', 'Nd', 'Zn')\",OTHERS,False\nmp-1227010,\"{'Ce': 6.0, 'Al': 3.0, 'Ga': 3.0, 'Ni': 6.0}\",\"('Al', 'Ce', 'Ga', 'Ni')\",OTHERS,False\nmp-1218506,\"{'Sr': 4.0, 'Cu': 3.0, 'Ni': 1.0, 'O': 8.0}\",\"('Cu', 'Ni', 'O', 'Sr')\",OTHERS,False\nmp-573471,\"{'Li': 85.0, 'Sn': 20.0}\",\"('Li', 'Sn')\",OTHERS,False\nmp-1213686,\"{'Cs': 1.0, 'Cr': 1.0, 'Mo': 2.0, 'O': 8.0}\",\"('Cr', 'Cs', 'Mo', 'O')\",OTHERS,False\nmp-6198,\"{'O': 32.0, 'Si': 8.0, 'Ga': 8.0, 'Sr': 4.0}\",\"('Ga', 'O', 'Si', 'Sr')\",OTHERS,False\nmp-722382,\"{'P': 4.0, 'H': 44.0, 'C': 4.0, 'N': 8.0, 'O': 16.0}\",\"('C', 'H', 'N', 'O', 'P')\",OTHERS,False\nmp-21007,\"{'Sn': 3.0, 'Sm': 3.0, 'Pt': 3.0}\",\"('Pt', 'Sm', 'Sn')\",OTHERS,False\nmp-1244820,\"{'Sr': 4.0, 'Y': 2.0, 'Bi': 4.0, 'O': 14.0}\",\"('Bi', 'O', 'Sr', 'Y')\",OTHERS,False\nmp-558801,\"{'K': 4.0, 'Pr': 8.0, 'Cl': 18.0, 'O': 4.0}\",\"('Cl', 'K', 'O', 'Pr')\",OTHERS,False\nmp-1215660,\"{'Zn': 1.0, 'Hg': 4.0, 'Te': 5.0}\",\"('Hg', 'Te', 'Zn')\",OTHERS,False\nmp-530409,\"{'Bi': 20.0, 'Cl': 36.0, 'Hf': 6.0}\",\"('Bi', 'Cl', 'Hf')\",OTHERS,False\nmp-1977,\"{'Sn': 3.0, 'Nd': 1.0}\",\"('Nd', 'Sn')\",OTHERS,False\nmp-559588,\"{'Cd': 2.0, 'Sb': 2.0, 'S': 4.0, 'Br': 2.0}\",\"('Br', 'Cd', 'S', 'Sb')\",OTHERS,False\nmp-1025283,\"{'Pr': 1.0, 'In': 5.0, 'Rh': 1.0}\",\"('In', 'Pr', 'Rh')\",OTHERS,False\nmp-764927,\"{'Li': 12.0, 'Cr': 3.0, 'P': 9.0, 'O': 36.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1225944,\"{'Cs': 2.0, 'Sb': 2.0, 'W': 2.0, 'O': 12.0}\",\"('Cs', 'O', 'Sb', 'W')\",OTHERS,False\nmp-1096132,\"{'Y': 2.0, 'Hg': 1.0, 'Pd': 1.0}\",\"('Hg', 'Pd', 'Y')\",OTHERS,False\nmp-36890,\"{'Bi': 3.0, 'O': 7.0, 'Ta': 1.0}\",\"('Bi', 'O', 'Ta')\",OTHERS,False\nmp-27398,\"{'Tl': 8.0, 'Br': 16.0}\",\"('Br', 'Tl')\",OTHERS,False\nmp-555092,\"{'K': 12.0, 'W': 4.0, 'S': 12.0, 'Cl': 4.0, 'O': 4.0}\",\"('Cl', 'K', 'O', 'S', 'W')\",OTHERS,False\nmp-1174835,\"{'Li': 6.0, 'Mn': 3.0, 'Co': 1.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-767627,\"{'Mn': 6.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'Mn', 'O')\",OTHERS,False\nmvc-16348,\"{'Zn': 6.0, 'Sb': 12.0, 'O': 24.0}\",\"('O', 'Sb', 'Zn')\",OTHERS,False\nAu 12.2 In 6.3 Ca 3,\"{'Au': 12.2, 'In': 6.3, 'Ca': 3.0}\",\"('Au', 'Ca', 'In')\",AC,False\nmp-683660,\"{'Mn': 8.0, 'C': 32.0, 'Br': 8.0, 'O': 32.0}\",\"('Br', 'C', 'Mn', 'O')\",OTHERS,False\nmp-1175864,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-27008,\"{'Fe': 4.0, 'P': 6.0, 'O': 20.0}\",\"('Fe', 'O', 'P')\",OTHERS,False\nmp-567655,\"{'Sr': 2.0, 'C': 1.0, 'N': 2.0, 'Cl': 2.0}\",\"('C', 'Cl', 'N', 'Sr')\",OTHERS,False\nmp-531021,\"{'Li': 11.0, 'Mn': 13.0, 'O': 32.0}\",\"('Li', 'Mn', 'O')\",OTHERS,False\nmp-1247615,\"{'Ca': 16.0, 'Mn': 12.0, 'Cr': 4.0, 'O': 44.0}\",\"('Ca', 'Cr', 'Mn', 'O')\",OTHERS,False\nmp-570163,\"{'Tm': 8.0, 'Mn': 8.0, 'Sn': 14.0}\",\"('Mn', 'Sn', 'Tm')\",OTHERS,False\nmp-1073495,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1218624,\"{'Sr': 5.0, 'Ca': 5.0, 'P': 6.0, 'Cl': 2.0, 'O': 24.0}\",\"('Ca', 'Cl', 'O', 'P', 'Sr')\",OTHERS,False\nmp-1183774,\"{'Co': 6.0, 'Sn': 2.0}\",\"('Co', 'Sn')\",OTHERS,False\nmp-1237806,\"{'H': 16.0, 'C': 4.0, 'N': 12.0, 'O': 14.0}\",\"('C', 'H', 'N', 'O')\",OTHERS,False\nmp-758769,\"{'Li': 4.0, 'Ni': 4.0, 'C': 8.0, 'O': 24.0}\",\"('C', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-861891,\"{'Se': 2.0, 'Br': 4.0}\",\"('Br', 'Se')\",OTHERS,False\nmvc-525,\"{'Ca': 2.0, 'Cu': 6.0, 'P': 8.0, 'O': 28.0}\",\"('Ca', 'Cu', 'O', 'P')\",OTHERS,False\nmp-849509,\"{'Li': 16.0, 'V': 8.0, 'P': 8.0, 'O': 32.0, 'F': 8.0}\",\"('F', 'Li', 'O', 'P', 'V')\",OTHERS,False\nmp-1208619,\"{'Sr': 2.0, 'Li': 2.0, 'Ga': 2.0, 'F': 12.0}\",\"('F', 'Ga', 'Li', 'Sr')\",OTHERS,False\nmp-1194315,\"{'Ni': 14.0, 'P': 14.0}\",\"('Ni', 'P')\",OTHERS,False\nmp-1074011,\"{'Mg': 12.0, 'Si': 10.0}\",\"('Mg', 'Si')\",OTHERS,False\nmp-1245956,\"{'Al': 2.0, 'Pb': 6.0, 'N': 6.0}\",\"('Al', 'N', 'Pb')\",OTHERS,False\nmp-1219254,\"{'Sc': 1.0, 'In': 1.0, 'P': 2.0}\",\"('In', 'P', 'Sc')\",OTHERS,False\nmp-1227158,\"{'Ce': 2.0, 'Ta': 14.0, 'O': 38.0}\",\"('Ce', 'O', 'Ta')\",OTHERS,False\nmp-1037735,\"{'Y': 1.0, 'Mg': 30.0, 'V': 1.0, 'O': 32.0}\",\"('Mg', 'O', 'V', 'Y')\",OTHERS,False\nmp-1076123,\"{'Eu': 4.0, 'Co': 4.0, 'O': 10.0}\",\"('Co', 'Eu', 'O')\",OTHERS,False\nmp-1198344,\"{'Ir': 4.0, 'Rh': 4.0, 'Br': 24.0, 'N': 20.0, 'Cl': 4.0}\",\"('Br', 'Cl', 'Ir', 'N', 'Rh')\",OTHERS,False\nmp-1184519,\"{'In': 6.0, 'Cl': 2.0}\",\"('Cl', 'In')\",OTHERS,False\nAl 55.1 Cu 14.6 Ru 20.2 Si 10.1,\"{'Al': 55.1, 'Cu': 14.6, 'Ru': 20.2, 'Si': 10.1}\",\"('Al', 'Cu', 'Ru', 'Si')\",AC,False\nmp-720100,\"{'Na': 2.0, 'H': 36.0, 'C': 18.0, 'I': 2.0, 'N': 6.0, 'O': 6.0}\",\"('C', 'H', 'I', 'N', 'Na', 'O')\",OTHERS,False\nmp-1212858,\"{'Dy': 10.0, 'Sb': 2.0, 'Pt': 4.0}\",\"('Dy', 'Pt', 'Sb')\",OTHERS,False\nmp-11493,\"{'Lu': 1.0, 'Pb': 2.0}\",\"('Lu', 'Pb')\",OTHERS,False\nmp-675192,\"{'Ce': 3.0, 'Dy': 2.0, 'O': 9.0}\",\"('Ce', 'Dy', 'O')\",OTHERS,False\nmp-759552,\"{'Li': 4.0, 'Cr': 2.0, 'P': 8.0, 'H': 32.0, 'O': 40.0}\",\"('Cr', 'H', 'Li', 'O', 'P')\",OTHERS,False\nmvc-10489,\"{'Ca': 4.0, 'Co': 8.0, 'Cu': 8.0, 'O': 32.0}\",\"('Ca', 'Co', 'Cu', 'O')\",OTHERS,False\nmp-1245357,\"{'Ba': 12.0, 'Mn': 24.0, 'N': 48.0}\",\"('Ba', 'Mn', 'N')\",OTHERS,False\nmp-1027293,\"{'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 6.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,False\nmp-25380,\"{'O': 8.0, 'F': 2.0, 'P': 2.0, 'Cu': 2.0}\",\"('Cu', 'F', 'O', 'P')\",OTHERS,False\nmp-1229007,\"{'Ag': 1.0, 'Sb': 1.0, 'Te': 1.0, 'Se': 1.0}\",\"('Ag', 'Sb', 'Se', 'Te')\",OTHERS,False\nmp-1182617,\"{'Co': 6.0, 'P': 6.0, 'H': 18.0, 'O': 30.0}\",\"('Co', 'H', 'O', 'P')\",OTHERS,False\nmp-1200195,\"{'Sc': 12.0, 'Mn': 12.0, 'Ge': 24.0}\",\"('Ge', 'Mn', 'Sc')\",OTHERS,False\nZn 75 Sc 15 Au 10,\"{'Zn': 75.0, 'Sc': 15.0, 'Au': 10.0}\",\"('Au', 'Sc', 'Zn')\",QC,False\nmp-760595,\"{'Cu': 4.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Cu', 'O')\",OTHERS,False\nmp-1223475,\"{'K': 2.0, 'Na': 2.0, 'Ca': 2.0, 'Th': 2.0, 'Si': 16.0, 'O': 40.0}\",\"('Ca', 'K', 'Na', 'O', 'Si', 'Th')\",OTHERS,False\nmp-10478,\"{'As': 4.0, 'Rh': 4.0, 'Ce': 4.0}\",\"('As', 'Ce', 'Rh')\",OTHERS,False\nmp-1025282,\"{'Ti': 1.0, 'V': 2.0, 'Te': 4.0}\",\"('Te', 'Ti', 'V')\",OTHERS,False\nmp-556146,\"{'Sn': 4.0, 'C': 4.0, 'S': 4.0, 'N': 4.0, 'F': 4.0}\",\"('C', 'F', 'N', 'S', 'Sn')\",OTHERS,False\nmp-641962,\"{'K': 4.0, 'Au': 4.0, 'C': 8.0, 'S': 8.0, 'N': 8.0}\",\"('Au', 'C', 'K', 'N', 'S')\",OTHERS,False\nmp-1215061,\"{'Ba': 4.0, 'Na': 2.0, 'Ti': 4.0, 'Mn': 2.0, 'Re': 4.0, 'Si': 16.0, 'H': 2.0, 'O': 52.0, 'F': 2.0}\",\"('Ba', 'F', 'H', 'Mn', 'Na', 'O', 'Re', 'Si', 'Ti')\",OTHERS,False\nmp-1101555,\"{'Li': 4.0, 'Mo': 2.0, 'P': 8.0, 'O': 26.0}\",\"('Li', 'Mo', 'O', 'P')\",OTHERS,False\nmp-1094254,\"{'Zr': 5.0, 'Sn': 1.0}\",\"('Sn', 'Zr')\",OTHERS,False\nmp-865913,\"{'Li': 2.0, 'Ac': 1.0, 'Sn': 1.0}\",\"('Ac', 'Li', 'Sn')\",OTHERS,False\nmp-1222706,\"{'La': 1.0, 'Zn': 1.0, 'Ag': 1.0, 'As': 2.0}\",\"('Ag', 'As', 'La', 'Zn')\",OTHERS,False\nmp-510484,\"{'Sn': 4.0, 'Ni': 8.0, 'Ca': 2.0}\",\"('Ca', 'Ni', 'Sn')\",OTHERS,False\nmp-1219530,\"{'Sb': 28.0, 'Mo': 9.0, 'Ru': 3.0}\",\"('Mo', 'Ru', 'Sb')\",OTHERS,False\nmp-1207948,\"{'V': 8.0, 'As': 8.0, 'N': 8.0, 'O': 32.0, 'F': 8.0}\",\"('As', 'F', 'N', 'O', 'V')\",OTHERS,False\nmp-753741,\"{'Li': 12.0, 'Cu': 4.0, 'S': 8.0}\",\"('Cu', 'Li', 'S')\",OTHERS,False\nmp-1094171,\"{'La': 6.0, 'Mg': 2.0}\",\"('La', 'Mg')\",OTHERS,False\nCd 19 Pr 3,\"{'Cd': 19.0, 'Pr': 3.0}\",\"('Cd', 'Pr')\",AC,False\nmvc-12664,\"{'Mg': 4.0, 'Ni': 4.0, 'O': 8.0}\",\"('Mg', 'Ni', 'O')\",OTHERS,False\nmvc-9385,\"{'Pr': 2.0, 'Mg': 2.0, 'Cr': 4.0, 'O': 12.0}\",\"('Cr', 'Mg', 'O', 'Pr')\",OTHERS,False\nmp-4240,\"{'Rb': 1.0, 'Te': 2.0, 'Ce': 1.0}\",\"('Ce', 'Rb', 'Te')\",OTHERS,False\nmp-865080,\"{'Na': 1.0, 'Ce': 1.0, 'Au': 2.0}\",\"('Au', 'Ce', 'Na')\",OTHERS,False\nmp-1216971,\"{'Ti': 3.0, 'Nb': 6.0, 'O': 21.0}\",\"('Nb', 'O', 'Ti')\",OTHERS,False\nmp-1211760,\"{'K': 4.0, 'Eu': 8.0, 'Cl': 28.0}\",\"('Cl', 'Eu', 'K')\",OTHERS,False\nmp-1176051,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,False\nmp-1177350,\"{'Li': 4.0, 'Mn': 5.0, 'Sb': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'Mn', 'O', 'P', 'Sb')\",OTHERS,False\nmp-1183370,\"{'Ba': 4.0, 'Sn': 4.0, 'S': 12.0}\",\"('Ba', 'S', 'Sn')\",OTHERS,False\nmp-1095603,\"{'Y': 4.0, 'As': 4.0, 'Se': 4.0}\",\"('As', 'Se', 'Y')\",OTHERS,False\nmp-1182493,\"{'Ca': 4.0, 'V': 4.0, 'Si': 16.0, 'O': 60.0}\",\"('Ca', 'O', 'Si', 'V')\",OTHERS,False\nmp-1190638,\"{'Dy': 8.0, 'Ge': 8.0, 'Pd': 8.0}\",\"('Dy', 'Ge', 'Pd')\",OTHERS,False\nmp-1223896,\"{'Hg': 1.0, 'Br': 1.0, 'N': 1.0}\",\"('Br', 'Hg', 'N')\",OTHERS,False\nmp-680232,\"{'K': 16.0, 'Ag': 8.0, 'C': 24.0, 'S': 24.0, 'N': 24.0}\",\"('Ag', 'C', 'K', 'N', 'S')\",OTHERS,False\nmp-1226025,\"{'K': 3.0, 'Zr': 4.0, 'Si': 12.0, 'H': 1.0, 'O': 44.0}\",\"('H', 'K', 'O', 'Si', 'Zr')\",OTHERS,False\nmp-759399,\"{'Na': 4.0, 'Co': 12.0, 'O': 16.0}\",\"('Co', 'Na', 'O')\",OTHERS,False\nmp-1001790,\"{'Li': 1.0, 'O': 3.0}\",\"('Li', 'O')\",OTHERS,False\nmvc-5807,\"{'Zn': 4.0, 'Cr': 2.0, 'Ir': 2.0, 'O': 12.0}\",\"('Cr', 'Ir', 'O', 'Zn')\",OTHERS,False\nmp-778251,\"{'Li': 4.0, 'Ti': 1.0, 'Co': 2.0, 'Ni': 3.0, 'P': 6.0, 'O': 24.0}\",\"('Co', 'Li', 'Ni', 'O', 'P', 'Ti')\",OTHERS,False\nmp-1188179,\"{'Er': 4.0, 'Al': 6.0, 'Ge': 8.0}\",\"('Al', 'Er', 'Ge')\",OTHERS,False\nmp-540702,\"{'Fe': 21.0, 'Se': 24.0}\",\"('Fe', 'Se')\",OTHERS,False\nmp-572674,\"{'Re': 3.0, 'C': 6.0, 'I': 6.0, 'O': 6.0}\",\"('C', 'I', 'O', 'Re')\",OTHERS,False\nmp-1227758,\"{'Ca': 4.0, 'Ti': 2.0, 'Cr': 2.0, 'O': 12.0}\",\"('Ca', 'Cr', 'O', 'Ti')\",OTHERS,False\nmp-1201100,\"{'Ce': 3.0, 'Ag': 3.0, 'S': 6.0, 'O': 27.0}\",\"('Ag', 'Ce', 'O', 'S')\",OTHERS,False\nmp-1226632,\"{'Cr': 24.0, 'P': 11.0, 'C': 1.0}\",\"('C', 'Cr', 'P')\",OTHERS,False\nmvc-5754,\"{'Mg': 4.0, 'Bi': 8.0, 'O': 16.0}\",\"('Bi', 'Mg', 'O')\",OTHERS,False\nmp-1224896,\"{'Fe': 2.0, 'Sb': 12.0, 'Pd': 2.0}\",\"('Fe', 'Pd', 'Sb')\",OTHERS,False\nmp-1096989,\"{'H': 24.0, 'C': 4.0, 'N': 4.0, 'Cl': 4.0}\",\"('C', 'Cl', 'H', 'N')\",OTHERS,False\nmp-867537,\"{'Li': 4.0, 'Co': 3.0, 'Ni': 1.0, 'O': 8.0}\",\"('Co', 'Li', 'Ni', 'O')\",OTHERS,False\nmp-1199851,\"{'Er': 4.0, 'C': 12.0, 'O': 32.0}\",\"('C', 'Er', 'O')\",OTHERS,False\nmp-14046,\"{'O': 48.0, 'Si': 12.0, 'V': 8.0, 'Mn': 12.0}\",\"('Mn', 'O', 'Si', 'V')\",OTHERS,False\nmp-2199,\"{'Si': 1.0, 'Fe': 3.0}\",\"('Fe', 'Si')\",OTHERS,False\nmp-29422,\"{'Cl': 8.0, 'Hf': 2.0}\",\"('Cl', 'Hf')\",OTHERS,False\nmp-556044,\"{'Si': 12.0, 'O': 24.0}\",\"('O', 'Si')\",OTHERS,False\nmp-705154,\"{'Li': 2.0, 'Cr': 8.0, 'P': 14.0, 'O': 48.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,False\nmp-1247606,\"{'Sr': 4.0, 'Ca': 28.0, 'Mn': 28.0, 'Cr': 4.0, 'O': 88.0}\",\"('Ca', 'Cr', 'Mn', 'O', 'Sr')\",OTHERS,False\nmp-1094704,\"{'Mg': 10.0, 'Cd': 2.0}\",\"('Cd', 'Mg')\",OTHERS,False\nmp-1027049,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,False\nmp-772659,\"{'Li': 12.0, 'Cr': 4.0, 'O': 16.0}\",\"('Cr', 'Li', 'O')\",OTHERS,False\nmp-755444,\"{'Li': 1.0, 'Zn': 1.0, 'Fe': 4.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Zn')\",OTHERS,False\nmp-1187775,\"{'Yb': 2.0, 'Pu': 6.0}\",\"('Pu', 'Yb')\",OTHERS,False\nmp-1214188,\"{'Ce': 8.0, 'Ta': 12.0, 'Se': 8.0, 'O': 32.0}\",\"('Ce', 'O', 'Se', 'Ta')\",OTHERS,False\nmp-7432,\"{'Sr': 1.0, 'Cd': 2.0, 'Sb': 2.0}\",\"('Cd', 'Sb', 'Sr')\",OTHERS,False\nmp-752797,\"{'Co': 6.0, 'O': 1.0, 'F': 11.0}\",\"('Co', 'F', 'O')\",OTHERS,False\nmp-2544,\"{'Be': 17.0, 'Zr': 2.0}\",\"('Be', 'Zr')\",OTHERS,False\nmp-7463,\"{'P': 6.0, 'Cu': 18.0}\",\"('Cu', 'P')\",OTHERS,True\nmp-1195659,\"{'Th': 4.0, 'Se': 8.0, 'O': 24.0}\",\"('O', 'Se', 'Th')\",OTHERS,True\nmp-1018786,\"{'Li': 2.0, 'Mn': 2.0, 'Sb': 2.0}\",\"('Li', 'Mn', 'Sb')\",OTHERS,True\nmp-651173,\"{'K': 6.0, 'W': 2.0, 'C': 8.0, 'N': 8.0, 'O': 2.0, 'F': 2.0}\",\"('C', 'F', 'K', 'N', 'O', 'W')\",OTHERS,True\nmp-1095230,\"{'Ca': 2.0, 'Se': 2.0, 'O': 8.0}\",\"('Ca', 'O', 'Se')\",OTHERS,True\nmp-1218639,\"{'Sr': 5.0, 'Mn': 4.0, 'C': 1.0, 'O': 13.0}\",\"('C', 'Mn', 'O', 'Sr')\",OTHERS,True\nmp-21313,\"{'C': 1.0, 'Mn': 3.0, 'Ga': 1.0}\",\"('C', 'Ga', 'Mn')\",OTHERS,True\nmp-768659,\"{'Li': 4.0, 'Co': 4.0, 'S': 6.0, 'O': 24.0}\",\"('Co', 'Li', 'O', 'S')\",OTHERS,True\nmp-1210938,\"{'Sm': 10.0, 'In': 20.0, 'Pd': 10.0}\",\"('In', 'Pd', 'Sm')\",OTHERS,True\nmvc-2827,\"{'Ca': 4.0, 'Ta': 4.0, 'Fe': 2.0, 'O': 16.0}\",\"('Ca', 'Fe', 'O', 'Ta')\",OTHERS,True\nmp-762265,\"{'Li': 3.0, 'V': 5.0, 'O': 10.0}\",\"('Li', 'O', 'V')\",OTHERS,True\nmp-779031,\"{'Na': 4.0, 'V': 4.0, 'P': 8.0, 'O': 32.0}\",\"('Na', 'O', 'P', 'V')\",OTHERS,True\nZn 72 Sc 16 Cu 12,\"{'Zn': 72.0, 'Sc': 16.0, 'Cu': 12.0}\",\"('Cu', 'Sc', 'Zn')\",QC,True\nmp-1246289,\"{'Mg': 6.0, 'Bi': 6.0, 'N': 10.0}\",\"('Bi', 'Mg', 'N')\",OTHERS,True\nmp-1200207,\"{'Cs': 16.0, 'Ga': 22.0}\",\"('Cs', 'Ga')\",OTHERS,True\nmp-1111691,\"{'K': 3.0, 'Tl': 1.0, 'F': 6.0}\",\"('F', 'K', 'Tl')\",OTHERS,True\nmp-9820,\"{'F': 6.0, 'As': 1.0, 'Cs': 1.0}\",\"('As', 'Cs', 'F')\",OTHERS,True\nmp-22724,\"{'F': 14.0, 'Zr': 2.0, 'Ce': 2.0}\",\"('Ce', 'F', 'Zr')\",OTHERS,True\nmp-1207797,\"{'Y': 3.0, 'Ga': 9.0, 'Cu': 2.0}\",\"('Cu', 'Ga', 'Y')\",OTHERS,True\nmp-753198,\"{'Mg': 2.0, 'Fe': 4.0, 'O': 8.0}\",\"('Fe', 'Mg', 'O')\",OTHERS,True\nmp-1029165,\"{'Te': 2.0, 'Mo': 2.0, 'W': 2.0, 'Se': 6.0}\",\"('Mo', 'Se', 'Te', 'W')\",OTHERS,True\nmp-684769,\"{'Sr': 2.0, 'La': 6.0, 'Ti': 1.0, 'Cu': 3.0, 'O': 16.0}\",\"('Cu', 'La', 'O', 'Sr', 'Ti')\",OTHERS,True\nmp-541923,\"{'Tl': 4.0, 'Cu': 20.0, 'Se': 12.0}\",\"('Cu', 'Se', 'Tl')\",OTHERS,True\nmp-1188122,\"{'Ba': 4.0, 'Er': 2.0, 'In': 2.0, 'Se': 10.0}\",\"('Ba', 'Er', 'In', 'Se')\",OTHERS,True\nmp-1112401,\"{'Cs': 1.0, 'Rb': 2.0, 'Ir': 1.0, 'F': 6.0}\",\"('Cs', 'F', 'Ir', 'Rb')\",OTHERS,True\nmp-1020010,\"{'Li': 8.0, 'Ca': 12.0, 'N': 24.0}\",\"('Ca', 'Li', 'N')\",OTHERS,True\nmp-863410,\"{'Li': 4.0, 'Nb': 2.0, 'P': 10.0, 'O': 30.0}\",\"('Li', 'Nb', 'O', 'P')\",OTHERS,True\nmp-558487,\"{'Gd': 4.0, 'P': 20.0, 'O': 56.0}\",\"('Gd', 'O', 'P')\",OTHERS,True\nmp-8184,\"{'Li': 4.0, 'O': 8.0, 'Zn': 2.0, 'Ge': 2.0}\",\"('Ge', 'Li', 'O', 'Zn')\",OTHERS,True\nmp-29776,\"{'Ge': 18.0, 'Rh': 26.0, 'Ce': 8.0}\",\"('Ce', 'Ge', 'Rh')\",OTHERS,True\nmp-582282,\"{'Gd': 2.0, 'Ag': 2.0, 'Se': 4.0}\",\"('Ag', 'Gd', 'Se')\",OTHERS,True\nmp-985626,\"{'Na': 3.0, 'Mn': 2.0, 'Sb': 1.0, 'O': 6.0}\",\"('Mn', 'Na', 'O', 'Sb')\",OTHERS,True\nmp-1025513,\"{'Zr': 4.0, 'Ge': 4.0}\",\"('Ge', 'Zr')\",OTHERS,True\nmp-1209864,\"{'Nd': 6.0, 'Zr': 2.0, 'Sb': 10.0}\",\"('Nd', 'Sb', 'Zr')\",OTHERS,True\nmp-1217847,\"{'Sr': 2.0, 'Ti': 8.0, 'Bi': 8.0, 'O': 30.0}\",\"('Bi', 'O', 'Sr', 'Ti')\",OTHERS,True\nmp-9705,\"{'B': 3.0, 'N': 6.0, 'Na': 1.0, 'Ba': 4.0}\",\"('B', 'Ba', 'N', 'Na')\",OTHERS,True\nmp-1036805,\"{'Ba': 1.0, 'Mg': 30.0, 'V': 1.0, 'O': 32.0}\",\"('Ba', 'Mg', 'O', 'V')\",OTHERS,True\nmp-557328,\"{'Li': 3.0, 'Zn': 2.0, 'Sb': 1.0, 'O': 6.0}\",\"('Li', 'O', 'Sb', 'Zn')\",OTHERS,True\nmp-26684,\"{'Li': 6.0, 'O': 36.0, 'P': 10.0, 'Cr': 4.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,True\nmp-554873,\"{'Ag': 8.0, 'B': 32.0, 'O': 52.0}\",\"('Ag', 'B', 'O')\",OTHERS,True\nmp-10609,\"{'C': 1.0, 'Sn': 1.0, 'Lu': 3.0}\",\"('C', 'Lu', 'Sn')\",OTHERS,True\nmp-1009213,\"{'Mn': 1.0, 'Sb': 1.0}\",\"('Mn', 'Sb')\",OTHERS,True\nmp-1187601,\"{'Tm': 2.0, 'Tl': 1.0, 'Zn': 1.0}\",\"('Tl', 'Tm', 'Zn')\",OTHERS,True\nmp-1188132,\"{'Ho': 4.0, 'Mo': 4.0, 'C': 8.0}\",\"('C', 'Ho', 'Mo')\",OTHERS,True\nmvc-14545,\"{'Ca': 1.0, 'La': 2.0, 'Sb': 1.0, 'O': 6.0}\",\"('Ca', 'La', 'O', 'Sb')\",OTHERS,True\nmp-1222495,\"{'Li': 3.0, 'Cd': 1.0}\",\"('Cd', 'Li')\",OTHERS,True\nmp-27331,\"{'K': 12.0, 'Ge': 4.0, 'Te': 12.0}\",\"('Ge', 'K', 'Te')\",OTHERS,True\nmp-1226404,\"{'Cu': 4.0, 'Si': 4.0, 'H': 72.0, 'C': 28.0, 'S': 12.0, 'I': 4.0}\",\"('C', 'Cu', 'H', 'I', 'S', 'Si')\",OTHERS,True\nmp-569020,\"{'In': 2.0, 'Sb': 2.0}\",\"('In', 'Sb')\",OTHERS,True\nmvc-4646,\"{'Ca': 8.0, 'Bi': 16.0, 'O': 32.0}\",\"('Bi', 'Ca', 'O')\",OTHERS,True\nmp-28319,\"{'I': 8.0, 'Pt': 4.0}\",\"('I', 'Pt')\",OTHERS,True\nmp-1093914,\"{'Mn': 1.0, 'Be': 2.0, 'Ru': 1.0}\",\"('Be', 'Mn', 'Ru')\",OTHERS,True\nmp-1222654,\"{'Li': 2.0, 'Ga': 1.0, 'Si': 1.0}\",\"('Ga', 'Li', 'Si')\",OTHERS,True\nmp-780712,\"{'Ce': 4.0, 'Cr': 4.0, 'O': 12.0}\",\"('Ce', 'Cr', 'O')\",OTHERS,True\nmp-26399,\"{'Li': 6.0, 'O': 16.0, 'P': 4.0, 'V': 2.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-559813,\"{'Ba': 9.0, 'Cu': 7.0, 'Cl': 2.0, 'O': 15.0}\",\"('Ba', 'Cl', 'Cu', 'O')\",OTHERS,True\nmvc-5780,\"{'Mg': 4.0, 'Fe': 2.0, 'Ir': 2.0, 'O': 12.0}\",\"('Fe', 'Ir', 'Mg', 'O')\",OTHERS,True\nmp-862846,\"{'Ca': 1.0, 'La': 1.0, 'Hg': 2.0}\",\"('Ca', 'Hg', 'La')\",OTHERS,True\nmp-29844,\"{'Al': 9.0, 'Cl': 36.0, 'Tb': 3.0}\",\"('Al', 'Cl', 'Tb')\",OTHERS,True\nmp-31145,\"{'Cu': 2.0, 'Ba': 2.0, 'Bi': 2.0}\",\"('Ba', 'Bi', 'Cu')\",OTHERS,True\nmp-20519,\"{'S': 2.0, 'Cd': 1.0, 'In': 1.0}\",\"('Cd', 'In', 'S')\",OTHERS,True\nmp-1033291,\"{'Mg': 6.0, 'B': 1.0, 'C': 1.0, 'O': 8.0}\",\"('B', 'C', 'Mg', 'O')\",OTHERS,True\nmp-541441,\"{'Zn': 2.0, 'Te': 2.0}\",\"('Te', 'Zn')\",OTHERS,True\nmp-1095711,\"{'Mg': 1.0, 'Sc': 1.0, 'Au': 2.0}\",\"('Au', 'Mg', 'Sc')\",OTHERS,True\nmp-771838,\"{'La': 8.0, 'Al': 12.0, 'O': 30.0}\",\"('Al', 'La', 'O')\",OTHERS,True\nmp-758006,\"{'Ca': 8.0, 'Si': 4.0, 'O': 16.0}\",\"('Ca', 'O', 'Si')\",OTHERS,True\nmp-706611,\"{'Li': 4.0, 'Be': 4.0, 'H': 16.0, 'N': 4.0, 'F': 16.0}\",\"('Be', 'F', 'H', 'Li', 'N')\",OTHERS,True\nmp-680205,\"{'Pb': 15.0, 'I': 30.0}\",\"('I', 'Pb')\",OTHERS,True\nmp-5577,\"{'Ge': 2.0, 'Rh': 2.0, 'Ce': 1.0}\",\"('Ce', 'Ge', 'Rh')\",OTHERS,True\nmp-1197388,\"{'Gd': 8.0, 'Fe': 56.0, 'C': 4.0}\",\"('C', 'Fe', 'Gd')\",OTHERS,True\nmp-546266,\"{'O': 4.0, 'Bi': 2.0, 'Dy': 1.0, 'I': 1.0}\",\"('Bi', 'Dy', 'I', 'O')\",OTHERS,True\nmp-574430,\"{'Ba': 2.0, 'U': 2.0, 'I': 12.0}\",\"('Ba', 'I', 'U')\",OTHERS,True\nmp-30782,\"{'Mg': 23.0, 'Sr': 6.0}\",\"('Mg', 'Sr')\",OTHERS,True\nmp-21657,\"{'Se': 12.0, 'Tl': 20.0}\",\"('Se', 'Tl')\",OTHERS,True\nmp-1208739,\"{'Sr': 4.0, 'Al': 4.0, 'H': 4.0, 'O': 4.0, 'F': 16.0}\",\"('Al', 'F', 'H', 'O', 'Sr')\",OTHERS,True\nmp-755999,\"{'Rb': 4.0, 'Be': 4.0, 'O': 6.0}\",\"('Be', 'O', 'Rb')\",OTHERS,True\nmp-561414,\"{'K': 12.0, 'Hg': 12.0, 'S': 8.0, 'Br': 20.0, 'O': 24.0}\",\"('Br', 'Hg', 'K', 'O', 'S')\",OTHERS,True\nmp-1227126,\"{'Ca': 2.0, 'Y': 2.0, 'Mn': 4.0, 'O': 12.0}\",\"('Ca', 'Mn', 'O', 'Y')\",OTHERS,True\nmp-6065,\"{'O': 6.0, 'Ga': 1.0, 'Sr': 2.0, 'Sb': 1.0}\",\"('Ga', 'O', 'Sb', 'Sr')\",OTHERS,True\nmp-555139,\"{'Zr': 4.0, 'Cu': 6.0, 'H': 64.0, 'O': 32.0, 'F': 28.0}\",\"('Cu', 'F', 'H', 'O', 'Zr')\",OTHERS,True\nmp-1095804,\"{'Nb': 1.0, 'Zn': 1.0, 'Ni': 2.0}\",\"('Nb', 'Ni', 'Zn')\",OTHERS,True\nmp-780528,\"{'Na': 12.0, 'Cr': 4.0, 'C': 8.0, 'S': 2.0, 'O': 32.0}\",\"('C', 'Cr', 'Na', 'O', 'S')\",OTHERS,True\nmp-31024,\"{'C': 1.0, 'Cl': 8.0, 'Sc': 5.0}\",\"('C', 'Cl', 'Sc')\",OTHERS,True\nmp-756507,\"{'Li': 2.0, 'Fe': 2.0, 'P': 2.0, 'H': 2.0, 'O': 10.0}\",\"('Fe', 'H', 'Li', 'O', 'P')\",OTHERS,True\nmp-1246688,\"{'Zr': 2.0, 'Sn': 2.0, 'N': 4.0}\",\"('N', 'Sn', 'Zr')\",OTHERS,True\nmp-30301,\"{'Li': 4.0, 'O': 16.0, 'Cl': 4.0}\",\"('Cl', 'Li', 'O')\",OTHERS,True\nmp-757560,\"{'Li': 6.0, 'Sn': 4.0, 'P': 14.0, 'O': 42.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,True\nmp-1094591,\"{'Li': 6.0, 'Mg': 2.0}\",\"('Li', 'Mg')\",OTHERS,True\nmvc-10249,\"{'Mg': 2.0, 'Sb': 6.0, 'P': 6.0, 'O': 26.0}\",\"('Mg', 'O', 'P', 'Sb')\",OTHERS,True\nmp-22243,\"{'Li': 4.0, 'O': 16.0, 'Ni': 4.0, 'As': 4.0}\",\"('As', 'Li', 'Ni', 'O')\",OTHERS,True\nmp-697108,\"{'K': 6.0, 'H': 2.0, 'Rh': 2.0, 'C': 10.0, 'N': 10.0, 'O': 2.0}\",\"('C', 'H', 'K', 'N', 'O', 'Rh')\",OTHERS,True\nmp-1265272,\"{'Li': 2.0, 'Mg': 2.0, 'Al': 6.0, 'S': 12.0, 'O': 48.0}\",\"('Al', 'Li', 'Mg', 'O', 'S')\",OTHERS,True\nmp-601275,\"{'K': 12.0, 'Al': 4.0, 'H': 24.0}\",\"('Al', 'H', 'K')\",OTHERS,True\nmp-29281,\"{'P': 132.0, 'Th': 24.0}\",\"('P', 'Th')\",OTHERS,True\nmp-1079861,\"{'Tm': 2.0, 'Co': 2.0, 'Ge': 4.0}\",\"('Co', 'Ge', 'Tm')\",OTHERS,True\nmp-1200003,\"{'Fe': 8.0, 'As': 8.0, 'N': 8.0, 'O': 32.0, 'F': 8.0}\",\"('As', 'F', 'Fe', 'N', 'O')\",OTHERS,True\nmp-1218092,\"{'Ta': 4.0, 'Nb': 2.0, 'Te': 2.0, 'I': 14.0}\",\"('I', 'Nb', 'Ta', 'Te')\",OTHERS,True\nmp-1245479,\"{'Ca': 10.0, 'Hf': 4.0, 'N': 12.0}\",\"('Ca', 'Hf', 'N')\",OTHERS,True\nmp-865758,\"{'Yb': 1.0, 'Ge': 1.0, 'O': 3.0}\",\"('Ge', 'O', 'Yb')\",OTHERS,True\nmp-26576,\"{'Li': 4.0, 'Fe': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,True\nmp-757666,\"{'Ca': 4.0, 'B': 20.0, 'H': 12.0, 'O': 40.0}\",\"('B', 'Ca', 'H', 'O')\",OTHERS,True\nmp-1213960,\"{'Ce': 4.0, 'Ni': 6.0, 'Ge': 10.0}\",\"('Ce', 'Ge', 'Ni')\",OTHERS,True\nmp-566150,\"{'In': 4.0, 'Cu': 6.0, 'P': 8.0, 'O': 32.0}\",\"('Cu', 'In', 'O', 'P')\",OTHERS,True\nmp-19811,\"{'Ru': 3.0, 'Sn': 3.0, 'U': 3.0}\",\"('Ru', 'Sn', 'U')\",OTHERS,True\nmp-20079,\"{'O': 12.0, 'Ca': 4.0, 'Pb': 4.0}\",\"('Ca', 'O', 'Pb')\",OTHERS,True\nmp-862362,\"{'Sc': 2.0, 'Tc': 1.0, 'Pt': 1.0}\",\"('Pt', 'Sc', 'Tc')\",OTHERS,True\nmp-1228819,\"{'As': 4.0, 'S': 2.0}\",\"('As', 'S')\",OTHERS,True\nmp-849339,\"{'Mn': 6.0, 'O': 10.0, 'F': 2.0}\",\"('F', 'Mn', 'O')\",OTHERS,True\nmp-18909,\"{'O': 8.0, 'P': 2.0, 'Ni': 2.0, 'Ba': 1.0}\",\"('Ba', 'Ni', 'O', 'P')\",OTHERS,True\nmp-1192640,\"{'Na': 2.0, 'Nb': 4.0, 'Se': 4.0, 'O': 19.0}\",\"('Na', 'Nb', 'O', 'Se')\",OTHERS,True\nmp-1096678,\"{'Nb': 2.0, 'Tc': 1.0, 'Ru': 1.0}\",\"('Nb', 'Ru', 'Tc')\",OTHERS,True\nmp-998152,\"{'Tl': 1.0, 'Ag': 1.0, 'F': 3.0}\",\"('Ag', 'F', 'Tl')\",OTHERS,True\nmp-758113,\"{'Li': 3.0, 'Fe': 6.0, 'Si': 6.0, 'O': 24.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,True\nmp-753571,\"{'Li': 1.0, 'V': 1.0, 'F': 6.0}\",\"('F', 'Li', 'V')\",OTHERS,True\nmp-867971,\"{'Mn': 15.0, 'O': 32.0}\",\"('Mn', 'O')\",OTHERS,True\nmp-757177,\"{'Li': 12.0, 'Cu': 2.0, 'S': 8.0}\",\"('Cu', 'Li', 'S')\",OTHERS,True\nmp-19739,\"{'Sc': 1.0, 'Fe': 6.0, 'Ge': 6.0}\",\"('Fe', 'Ge', 'Sc')\",OTHERS,True\nmp-27721,\"{'H': 12.0, 'As': 4.0}\",\"('As', 'H')\",OTHERS,True\nmp-1221702,\"{'Mn': 1.0, 'Al': 1.0, 'Rh': 2.0}\",\"('Al', 'Mn', 'Rh')\",OTHERS,True\nmp-504703,\"{'Eu': 4.0, 'Fe': 4.0, 'O': 12.0}\",\"('Eu', 'Fe', 'O')\",OTHERS,True\nmp-15821,\"{'Li': 3.0, 'Ge': 3.0, 'Nd': 3.0}\",\"('Ge', 'Li', 'Nd')\",OTHERS,True\nmp-756603,\"{'Li': 4.0, 'Al': 2.0, 'Ni': 2.0, 'O': 8.0}\",\"('Al', 'Li', 'Ni', 'O')\",OTHERS,True\nmp-38125,\"{'Cd': 2.0, 'Se': 8.0, 'Sm': 4.0}\",\"('Cd', 'Se', 'Sm')\",OTHERS,True\nAu 42.9 In 41.9 Yb 15.2,\"{'Au': 42.9, 'In': 41.9, 'Yb': 15.2}\",\"('Au', 'In', 'Yb')\",AC,True\nmp-42022,\"{'Cs': 2.0, 'F': 5.0, 'O': 1.0, 'Rb': 1.0, 'Zr': 1.0}\",\"('Cs', 'F', 'O', 'Rb', 'Zr')\",OTHERS,True\nmp-776555,\"{'Na': 4.0, 'V': 12.0, 'P': 8.0, 'O': 52.0}\",\"('Na', 'O', 'P', 'V')\",OTHERS,True\nmp-760888,\"{'V': 8.0, 'O': 2.0, 'F': 22.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmp-1030319,\"{'Te': 8.0, 'Mo': 4.0}\",\"('Mo', 'Te')\",OTHERS,True\nmp-862811,\"{'Cs': 2.0, 'K': 1.0, 'U': 2.0, 'Si': 4.0, 'O': 14.0}\",\"('Cs', 'K', 'O', 'Si', 'U')\",OTHERS,True\nmp-1183639,\"{'Cd': 1.0, 'Hg': 3.0}\",\"('Cd', 'Hg')\",OTHERS,True\nmp-1185021,\"{'La': 1.0, 'Pm': 1.0, 'Ru': 2.0}\",\"('La', 'Pm', 'Ru')\",OTHERS,True\nmp-556288,\"{'Li': 4.0, 'Re': 2.0, 'O': 6.0}\",\"('Li', 'O', 'Re')\",OTHERS,True\nmp-770413,\"{'La': 4.0, 'Ho': 4.0, 'O': 12.0}\",\"('Ho', 'La', 'O')\",OTHERS,True\nmp-1200278,\"{'Sn': 4.0, 'H': 28.0, 'Cl': 12.0, 'O': 16.0}\",\"('Cl', 'H', 'O', 'Sn')\",OTHERS,True\nmp-698483,\"{'U': 4.0, 'Cu': 2.0, 'As': 4.0, 'H': 48.0, 'O': 48.0}\",\"('As', 'Cu', 'H', 'O', 'U')\",OTHERS,True\nmp-1232173,\"{'Ho': 8.0, 'Mg': 4.0, 'Se': 16.0}\",\"('Ho', 'Mg', 'Se')\",OTHERS,True\nmp-778584,\"{'Li': 1.0, 'Mn': 2.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmvc-8898,\"{'Mg': 4.0, 'Ti': 12.0, 'O': 28.0}\",\"('Mg', 'O', 'Ti')\",OTHERS,True\nmp-1094218,\"{'La': 15.0, 'Mg': 3.0}\",\"('La', 'Mg')\",OTHERS,True\nmp-2061,\"{'Tl': 3.0, 'Th': 1.0}\",\"('Th', 'Tl')\",OTHERS,True\nmp-1114645,\"{'Rb': 2.0, 'Tl': 1.0, 'Hg': 1.0, 'Br': 6.0}\",\"('Br', 'Hg', 'Rb', 'Tl')\",OTHERS,True\nmp-569338,\"{'Yb': 4.0, 'Al': 4.0, 'Pd': 4.0}\",\"('Al', 'Pd', 'Yb')\",OTHERS,True\nmp-1186681,\"{'Pm': 1.0, 'Y': 1.0, 'Ir': 2.0}\",\"('Ir', 'Pm', 'Y')\",OTHERS,True\nmp-1221085,\"{'Na': 1.0, 'Ce': 1.0, 'Mo': 2.0, 'O': 8.0}\",\"('Ce', 'Mo', 'Na', 'O')\",OTHERS,True\nmp-1199784,\"{'Zr': 4.0, 'C': 12.0, 'N': 12.0, 'O': 48.0}\",\"('C', 'N', 'O', 'Zr')\",OTHERS,True\nmp-1355,\"{'Mn': 23.0, 'Y': 6.0}\",\"('Mn', 'Y')\",OTHERS,True\nmp-1221209,\"{'Na': 3.0, 'W': 2.0, 'Cl': 4.0, 'O': 4.0}\",\"('Cl', 'Na', 'O', 'W')\",OTHERS,True\nmp-862694,\"{'Al': 2.0, 'Ir': 1.0, 'Rh': 1.0}\",\"('Al', 'Ir', 'Rh')\",OTHERS,True\nmp-1039936,\"{'Na': 1.0, 'Ce': 1.0, 'Mg': 30.0, 'O': 32.0}\",\"('Ce', 'Mg', 'Na', 'O')\",OTHERS,True\nmp-1245109,\"{'Zn': 40.0, 'O': 40.0}\",\"('O', 'Zn')\",OTHERS,True\nmp-1227830,\"{'Ba': 2.0, 'Sr': 4.0, 'Sn': 6.0, 'O': 18.0}\",\"('Ba', 'O', 'Sn', 'Sr')\",OTHERS,True\nmp-1179597,\"{'Sb': 8.0, 'F': 48.0}\",\"('F', 'Sb')\",OTHERS,True\nmp-1099098,\"{'Ce': 1.0, 'Mg': 14.0, 'Bi': 1.0}\",\"('Bi', 'Ce', 'Mg')\",OTHERS,True\nmp-1100995,\"{'Tl': 1.0, 'Cu': 7.0, 'S': 4.0}\",\"('Cu', 'S', 'Tl')\",OTHERS,True\nmp-1226373,\"{'Cr': 12.0, 'Sb': 4.0, 'As': 8.0}\",\"('As', 'Cr', 'Sb')\",OTHERS,True\nmvc-940,\"{'Ba': 1.0, 'Ca': 1.0, 'Mn': 4.0, 'O': 8.0}\",\"('Ba', 'Ca', 'Mn', 'O')\",OTHERS,True\nmp-723406,\"{'La': 2.0, 'P': 6.0, 'H': 6.0, 'O': 20.0}\",\"('H', 'La', 'O', 'P')\",OTHERS,True\nmp-1190729,\"{'Ba': 4.0, 'Ge': 4.0, 'O': 16.0}\",\"('Ba', 'Ge', 'O')\",OTHERS,True\nmp-1093633,\"{'K': 1.0, 'Na': 2.0, 'As': 1.0}\",\"('As', 'K', 'Na')\",OTHERS,True\nmp-1147571,\"{'K': 1.0, 'Cu': 2.0, 'Ge': 1.0, 'S': 4.0}\",\"('Cu', 'Ge', 'K', 'S')\",OTHERS,True\nmp-1232324,\"{'Cd': 1.0, 'Pd': 2.0, 'O': 3.0}\",\"('Cd', 'O', 'Pd')\",OTHERS,True\nmp-414,\"{'Se': 1.0, 'Lu': 1.0}\",\"('Lu', 'Se')\",OTHERS,True\nmp-1029850,\"{'K': 30.0, 'Cr': 14.0, 'N': 38.0}\",\"('Cr', 'K', 'N')\",OTHERS,True\nmp-1186105,\"{'Na': 1.0, 'Ac': 3.0}\",\"('Ac', 'Na')\",OTHERS,True\nmp-628726,\"{'Sr': 2.0, 'Al': 4.0, 'Cl': 16.0}\",\"('Al', 'Cl', 'Sr')\",OTHERS,True\nmp-557082,\"{'H': 24.0, 'O': 12.0}\",\"('H', 'O')\",OTHERS,True\nmp-18256,\"{'B': 8.0, 'O': 20.0, 'Mg': 8.0}\",\"('B', 'Mg', 'O')\",OTHERS,True\nmp-1186581,\"{'Pm': 2.0, 'Ge': 6.0}\",\"('Ge', 'Pm')\",OTHERS,True\nmp-1101443,\"{'Nd': 2.0, 'Ta': 6.0, 'O': 18.0}\",\"('Nd', 'O', 'Ta')\",OTHERS,True\nmp-989517,\"{'Cs': 2.0, 'S': 1.0, 'Br': 1.0, 'Cl': 6.0}\",\"('Br', 'Cl', 'Cs', 'S')\",OTHERS,True\nmp-760336,\"{'Li': 15.0, 'Mn': 15.0, 'Co': 3.0, 'O': 36.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-583553,\"{'Mo': 24.0, 'Pb': 4.0, 'Cl': 56.0}\",\"('Cl', 'Mo', 'Pb')\",OTHERS,True\nmp-637249,\"{'Eu': 8.0, 'Li': 4.0, 'Ge': 12.0}\",\"('Eu', 'Ge', 'Li')\",OTHERS,True\nmp-776405,\"{'Li': 12.0, 'Sb': 4.0, 'S': 14.0}\",\"('Li', 'S', 'Sb')\",OTHERS,True\nmp-704203,\"{'Li': 4.0, 'V': 2.0, 'P': 8.0, 'O': 26.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-972877,\"{'Sc': 2.0, 'Al': 1.0, 'Ir': 1.0}\",\"('Al', 'Ir', 'Sc')\",OTHERS,True\nmp-1202899,\"{'Pt': 4.0, 'N': 24.0, 'O': 24.0}\",\"('N', 'O', 'Pt')\",OTHERS,True\nmp-982596,\"{'Tb': 1.0, 'Sc': 1.0}\",\"('Sc', 'Tb')\",OTHERS,True\nmp-510582,\"{'Nd': 4.0, 'Ni': 4.0, 'Sn': 4.0, 'H': 8.0}\",\"('H', 'Nd', 'Ni', 'Sn')\",OTHERS,True\nmp-685218,\"{'Fe': 24.0, 'Co': 12.0, 'O': 48.0}\",\"('Co', 'Fe', 'O')\",OTHERS,True\nmp-554824,\"{'La': 12.0, 'Ru': 4.0, 'O': 28.0}\",\"('La', 'O', 'Ru')\",OTHERS,True\nmp-1025346,\"{'Ga': 1.0, 'As': 1.0, 'Pd': 5.0}\",\"('As', 'Ga', 'Pd')\",OTHERS,True\nmp-867806,\"{'Li': 1.0, 'La': 2.0, 'Ir': 1.0}\",\"('Ir', 'La', 'Li')\",OTHERS,True\nmp-1112759,\"{'Cs': 2.0, 'K': 1.0, 'In': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cs', 'In', 'K')\",OTHERS,True\nmp-25838,\"{'Li': 2.0, 'O': 24.0, 'P': 6.0, 'Cr': 4.0}\",\"('Cr', 'Li', 'O', 'P')\",OTHERS,True\nmp-1198575,\"{'Rb': 18.0, 'La': 6.0, 'Cl': 36.0, 'O': 12.0}\",\"('Cl', 'La', 'O', 'Rb')\",OTHERS,True\nmp-15362,\"{'Li': 12.0, 'B': 12.0, 'O': 36.0, 'Nd': 8.0}\",\"('B', 'Li', 'Nd', 'O')\",OTHERS,True\nmp-1216465,\"{'V': 2.0, 'As': 4.0, 'H': 8.0, 'O': 18.0}\",\"('As', 'H', 'O', 'V')\",OTHERS,True\nmp-647265,\"{'V': 16.0, 'Bi': 56.0, 'O': 120.0}\",\"('Bi', 'O', 'V')\",OTHERS,True\nmp-673024,\"{'Li': 2.0, 'Sn': 8.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,True\nmp-1218050,\"{'Sr': 2.0, 'Pr': 2.0, 'Ga': 6.0, 'O': 14.0}\",\"('Ga', 'O', 'Pr', 'Sr')\",OTHERS,True\nmp-1202122,\"{'Pd': 3.0, 'N': 16.0, 'O': 16.0}\",\"('N', 'O', 'Pd')\",OTHERS,True\nmvc-1338,\"{'Ca': 4.0, 'Cr': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Ca', 'Cr', 'O', 'P')\",OTHERS,True\nmp-865144,\"{'Cd': 2.0, 'Au': 6.0}\",\"('Au', 'Cd')\",OTHERS,True\nmp-756600,\"{'Li': 7.0, 'Mn': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,True\nmp-1040512,\"{'Nb': 3.0, 'Si': 1.0, 'O': 10.0}\",\"('Nb', 'O', 'Si')\",OTHERS,True\nmp-1186198,\"{'Na': 1.0, 'Zn': 1.0, 'O': 3.0}\",\"('Na', 'O', 'Zn')\",OTHERS,True\nmp-1076534,\"{'Rb': 1.0, 'Ta': 1.0, 'O': 3.0}\",\"('O', 'Rb', 'Ta')\",OTHERS,True\nmp-1199244,\"{'Cs': 4.0, 'Cu': 4.0, 'S': 24.0}\",\"('Cs', 'Cu', 'S')\",OTHERS,True\nmp-1184390,\"{'Gd': 2.0, 'Tl': 1.0, 'Zn': 1.0}\",\"('Gd', 'Tl', 'Zn')\",OTHERS,True\nmp-770785,\"{'Na': 12.0, 'Mn': 4.0, 'B': 8.0, 'As': 2.0, 'O': 32.0}\",\"('As', 'B', 'Mn', 'Na', 'O')\",OTHERS,True\nmp-1246233,\"{'Na': 24.0, 'Ga': 8.0, 'N': 16.0}\",\"('Ga', 'N', 'Na')\",OTHERS,True\nmp-1219019,\"{'Sm': 1.0, 'Ga': 3.0, 'Pt': 1.0}\",\"('Ga', 'Pt', 'Sm')\",OTHERS,True\nmp-1208977,\"{'Sm': 12.0, 'Si': 8.0, 'Rh': 8.0}\",\"('Rh', 'Si', 'Sm')\",OTHERS,True\nmp-571660,\"{'Cd': 12.0, 'I': 24.0}\",\"('Cd', 'I')\",OTHERS,True\nmp-5510,\"{'Si': 2.0, 'Au': 2.0, 'U': 1.0}\",\"('Au', 'Si', 'U')\",OTHERS,True\nZn 75 Sc 15 Ni 10,\"{'Zn': 75.0, 'Sc': 15.0, 'Ni': 10.0}\",\"('Ni', 'Sc', 'Zn')\",QC,True\nmp-1177102,\"{'Li': 5.0, 'Fe': 1.0, 'S': 4.0}\",\"('Fe', 'Li', 'S')\",OTHERS,True\nmp-758309,\"{'Li': 4.0, 'Co': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,True\nGa 2.6 Cu 3.4 Lu 1,\"{'Ga': 2.6, 'Cu': 3.4, 'Lu': 1.0}\",\"('Cu', 'Ga', 'Lu')\",AC,True\nmp-1094334,\"{'Sr': 2.0, 'Mg': 4.0}\",\"('Mg', 'Sr')\",OTHERS,True\nmp-540639,\"{'Fe': 1.0, 'S': 4.0, 'N': 6.0, 'C': 4.0, 'H': 8.0}\",\"('C', 'Fe', 'H', 'N', 'S')\",OTHERS,True\nmp-569299,\"{'Be': 4.0, 'B': 8.0, 'C': 8.0}\",\"('B', 'Be', 'C')\",OTHERS,True\nmp-977128,\"{'Na': 1.0, 'Ru': 3.0}\",\"('Na', 'Ru')\",OTHERS,True\nmp-1225216,\"{'Fe': 2.0, 'Co': 2.0, 'Bi': 4.0, 'As': 4.0, 'O': 24.0}\",\"('As', 'Bi', 'Co', 'Fe', 'O')\",OTHERS,True\nmp-1199772,\"{'Sb': 16.0, 'Xe': 8.0, 'Cl': 8.0, 'F': 88.0}\",\"('Cl', 'F', 'Sb', 'Xe')\",OTHERS,True\nmp-740750,\"{'Na': 8.0, 'P': 8.0, 'H': 12.0, 'O': 30.0}\",\"('H', 'Na', 'O', 'P')\",OTHERS,True\nmp-761105,\"{'Li': 2.0, 'Co': 4.0, 'O': 2.0, 'F': 6.0}\",\"('Co', 'F', 'Li', 'O')\",OTHERS,True\nmp-562987,\"{'V': 1.0, 'Cu': 1.0, 'O': 3.0}\",\"('Cu', 'O', 'V')\",OTHERS,True\nAl 70 Ni 20 Ru 10,\"{'Al': 70.0, 'Ni': 20.0, 'Ru': 10.0}\",\"('Al', 'Ni', 'Ru')\",QC,True\nmp-567368,\"{'Zr': 24.0, 'V': 16.0, 'Ga': 32.0}\",\"('Ga', 'V', 'Zr')\",OTHERS,True\nmvc-4147,\"{'Mg': 4.0, 'Ta': 2.0, 'Cu': 2.0, 'O': 12.0}\",\"('Cu', 'Mg', 'O', 'Ta')\",OTHERS,True\nmp-1227560,\"{'Ce': 4.0, 'Ga': 2.0, 'S': 5.0, 'O': 4.0}\",\"('Ce', 'Ga', 'O', 'S')\",OTHERS,True\nmp-1185990,\"{'Mg': 1.0, 'Tl': 3.0}\",\"('Mg', 'Tl')\",OTHERS,True\nmp-1112047,\"{'K': 2.0, 'Cu': 1.0, 'Mo': 1.0, 'Br': 6.0}\",\"('Br', 'Cu', 'K', 'Mo')\",OTHERS,True\nmp-1210173,\"{'Pr': 12.0, 'Co': 4.0, 'Br': 12.0}\",\"('Br', 'Co', 'Pr')\",OTHERS,True\nmp-981247,\"{'Zn': 7.0, 'Sb': 8.0, 'Ru': 9.0}\",\"('Ru', 'Sb', 'Zn')\",OTHERS,True\nmp-4300,\"{'O': 7.0, 'Si': 2.0, 'Yb': 2.0}\",\"('O', 'Si', 'Yb')\",OTHERS,True\nmp-1100617,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1228596,\"{'Al': 1.0, 'H': 12.0, 'C': 4.0, 'N': 1.0, 'F': 4.0}\",\"('Al', 'C', 'F', 'H', 'N')\",OTHERS,True\nmp-754693,\"{'Lu': 2.0, 'Bi': 6.0, 'O': 12.0}\",\"('Bi', 'Lu', 'O')\",OTHERS,True\nmp-2496,\"{'Sn': 46.0, 'Cs': 8.0}\",\"('Cs', 'Sn')\",OTHERS,True\nmp-1074941,\"{'Mg': 6.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-23541,\"{'K': 2.0, 'Br': 10.0, 'Sn': 4.0}\",\"('Br', 'K', 'Sn')\",OTHERS,True\nmp-975199,\"{'Rb': 1.0, 'Sr': 3.0}\",\"('Rb', 'Sr')\",OTHERS,True\nmp-1212246,\"{'Ho': 10.0, 'In': 8.0, 'Pt': 4.0}\",\"('Ho', 'In', 'Pt')\",OTHERS,True\nmp-1027335,\"{'Mo': 2.0, 'W': 2.0, 'S': 8.0}\",\"('Mo', 'S', 'W')\",OTHERS,True\nmp-706616,\"{'Zn': 4.0, 'H': 32.0, 'O': 16.0, 'F': 8.0}\",\"('F', 'H', 'O', 'Zn')\",OTHERS,True\nmp-769544,\"{'Mg': 1.0, 'Cr': 3.0, 'Se': 2.0, 'S': 4.0, 'O': 24.0}\",\"('Cr', 'Mg', 'O', 'S', 'Se')\",OTHERS,True\nmp-1209887,\"{'Nb': 4.0, 'Fe': 4.0, 'Si': 4.0}\",\"('Fe', 'Nb', 'Si')\",OTHERS,True\nmp-1186906,\"{'Rb': 3.0, 'Gd': 1.0}\",\"('Gd', 'Rb')\",OTHERS,True\nmp-1212910,\"{'Fe': 2.0, 'Bi': 12.0, 'P': 4.0, 'O': 28.0, 'F': 4.0}\",\"('Bi', 'F', 'Fe', 'O', 'P')\",OTHERS,True\nmp-761212,\"{'Li': 2.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,True\nmvc-2643,\"{'Zn': 2.0, 'W': 10.0, 'O': 14.0}\",\"('O', 'W', 'Zn')\",OTHERS,True\nmp-1198558,\"{'Cd': 8.0, 'C': 8.0, 'O': 24.0}\",\"('C', 'Cd', 'O')\",OTHERS,True\nmp-773138,\"{'Na': 2.0, 'Cr': 2.0, 'As': 2.0, 'C': 2.0, 'O': 14.0}\",\"('As', 'C', 'Cr', 'Na', 'O')\",OTHERS,True\nmp-23310,\"{'Yb': 8.0, 'Bi': 6.0}\",\"('Bi', 'Yb')\",OTHERS,True\nmp-756869,\"{'Tb': 2.0, 'K': 4.0, 'O': 6.0}\",\"('K', 'O', 'Tb')\",OTHERS,True\nmp-559347,\"{'Si': 16.0, 'O': 32.0}\",\"('O', 'Si')\",OTHERS,True\nmp-581476,\"{'Zn': 12.0, 'S': 12.0}\",\"('S', 'Zn')\",OTHERS,True\nmp-1224906,\"{'Ge': 4.0, 'Pb': 10.0, 'S': 2.0, 'O': 24.0}\",\"('Ge', 'O', 'Pb', 'S')\",OTHERS,True\nmp-1215422,\"{'Zr': 2.0, 'S': 1.0, 'O': 3.0}\",\"('O', 'S', 'Zr')\",OTHERS,True\nmp-753630,\"{'Li': 9.0, 'V': 6.0, 'P': 12.0, 'H': 6.0, 'O': 48.0}\",\"('H', 'Li', 'O', 'P', 'V')\",OTHERS,True\nmp-17439,\"{'O': 24.0, 'P': 8.0, 'K': 2.0, 'Sm': 2.0}\",\"('K', 'O', 'P', 'Sm')\",OTHERS,True\nmp-780843,\"{'Li': 4.0, 'Fe': 2.0, 'Ni': 3.0, 'Sn': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Li', 'Ni', 'O', 'P', 'Sn')\",OTHERS,True\nmp-1212582,\"{'Eu': 4.0, 'Al': 6.0, 'O': 16.0}\",\"('Al', 'Eu', 'O')\",OTHERS,True\nmp-28837,\"{'Cl': 24.0, 'K': 12.0, 'Rh': 4.0}\",\"('Cl', 'K', 'Rh')\",OTHERS,True\nZn 75 Sc 15 Pd 10,\"{'Zn': 75.0, 'Sc': 15.0, 'Pd': 10.0}\",\"('Pd', 'Sc', 'Zn')\",QC,True\nmp-532510,\"{'Al': 28.0, 'Ni': 14.0, 'O': 56.0}\",\"('Al', 'Ni', 'O')\",OTHERS,True\nmp-568793,\"{'Ca': 28.0, 'Ga': 11.0}\",\"('Ca', 'Ga')\",OTHERS,True\nmp-39888,\"{'Nd': 1.0, 'Ti': 3.0, 'Fe': 1.0, 'Cu': 3.0, 'O': 12.0}\",\"('Cu', 'Fe', 'Nd', 'O', 'Ti')\",OTHERS,True\nmp-772334,\"{'Li': 3.0, 'Fe': 3.0, 'Te': 1.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Te')\",OTHERS,True\nmp-1199106,\"{'Tm': 20.0, 'Pt': 16.0}\",\"('Pt', 'Tm')\",OTHERS,True\nmp-567313,{'Te': 3.0},\"('Te',)\",OTHERS,True\nmp-12866,\"{'O': 6.0, 'Sr': 2.0, 'Sn': 2.0}\",\"('O', 'Sn', 'Sr')\",OTHERS,True\nmp-755087,\"{'Li': 3.0, 'Fe': 1.0, 'F': 6.0}\",\"('F', 'Fe', 'Li')\",OTHERS,True\nmp-1184072,\"{'Dy': 2.0, 'Pd': 1.0, 'Rh': 1.0}\",\"('Dy', 'Pd', 'Rh')\",OTHERS,True\nmp-26134,\"{'Cr': 4.0, 'P': 10.0, 'O': 32.0}\",\"('Cr', 'O', 'P')\",OTHERS,True\nmp-2331,\"{'B': 4.0, 'Mo': 2.0}\",\"('B', 'Mo')\",OTHERS,True\nmp-1217053,\"{'U': 1.0, 'Fe': 10.0, 'Si': 2.0}\",\"('Fe', 'Si', 'U')\",OTHERS,True\nmp-769253,\"{'Dy': 2.0, 'Se': 1.0, 'O': 2.0}\",\"('Dy', 'O', 'Se')\",OTHERS,True\nmp-1078684,\"{'Er': 3.0, 'Cd': 3.0, 'Ga': 3.0}\",\"('Cd', 'Er', 'Ga')\",OTHERS,True\nmp-567858,\"{'Dy': 24.0, 'C': 12.0, 'I': 34.0}\",\"('C', 'Dy', 'I')\",OTHERS,True\nmp-1099903,\"{'K': 20.0, 'Na': 12.0, 'Ta': 24.0, 'Nb': 8.0, 'O': 80.0}\",\"('K', 'Na', 'Nb', 'O', 'Ta')\",OTHERS,True\nmp-1246529,\"{'Fe': 16.0, 'Ge': 16.0, 'N': 32.0}\",\"('Fe', 'Ge', 'N')\",OTHERS,True\nmp-766079,\"{'Sr': 8.0, 'Cu': 8.0, 'O': 17.0}\",\"('Cu', 'O', 'Sr')\",OTHERS,True\nmp-1220481,\"{'Nb': 4.0, 'Al': 1.0}\",\"('Al', 'Nb')\",OTHERS,True\nmp-555202,\"{'K': 2.0, 'Te': 2.0, 'H': 2.0, 'O': 2.0, 'F': 8.0}\",\"('F', 'H', 'K', 'O', 'Te')\",OTHERS,True\nmp-1211077,\"{'Li': 12.0, 'I': 6.0, 'O': 36.0}\",\"('I', 'Li', 'O')\",OTHERS,True\nmp-1212611,\"{'Hf': 4.0, 'As': 8.0, 'O': 36.0}\",\"('As', 'Hf', 'O')\",OTHERS,True\nmp-1219538,\"{'Sb': 10.0, 'O': 28.0}\",\"('O', 'Sb')\",OTHERS,True\nmp-979952,\"{'Yb': 3.0, 'Ti': 1.0}\",\"('Ti', 'Yb')\",OTHERS,True\nmp-1207397,\"{'Zn': 1.0, 'Os': 2.0, 'N': 4.0, 'O': 8.0}\",\"('N', 'O', 'Os', 'Zn')\",OTHERS,True\nmp-1185774,\"{'Mg': 4.0, 'Sc': 2.0}\",\"('Mg', 'Sc')\",OTHERS,True\nmp-1245359,\"{'In': 20.0, 'Si': 12.0, 'N': 36.0}\",\"('In', 'N', 'Si')\",OTHERS,True\nmp-5151,\"{'S': 12.0, 'Ge': 2.0, 'Cd': 8.0}\",\"('Cd', 'Ge', 'S')\",OTHERS,True\nmp-975337,\"{'Rb': 1.0, 'F': 3.0}\",\"('F', 'Rb')\",OTHERS,True\nmp-1220161,\"{'Nd': 2.0, 'Al': 2.0, 'Si': 2.0}\",\"('Al', 'Nd', 'Si')\",OTHERS,True\nmp-504549,\"{'U': 4.0, 'Fe': 4.0, 'O': 16.0}\",\"('Fe', 'O', 'U')\",OTHERS,True\nmp-1099703,\"{'Sr': 6.0, 'Ca': 2.0, 'Ti': 6.0, 'Mn': 2.0, 'O': 24.0}\",\"('Ca', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,True\nmp-761011,\"{'Li': 6.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-1025028,\"{'Pr': 2.0, 'Si': 2.0, 'Ag': 2.0}\",\"('Ag', 'Pr', 'Si')\",OTHERS,True\nmp-1208914,\"{'Sm': 6.0, 'Al': 24.0, 'Ru': 8.0}\",\"('Al', 'Ru', 'Sm')\",OTHERS,True\nmp-10746,\"{'Mg': 4.0, 'Si': 2.0, 'Cu': 6.0}\",\"('Cu', 'Mg', 'Si')\",OTHERS,True\nmp-556799,\"{'Li': 12.0, 'In': 4.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'In', 'Li', 'O')\",OTHERS,True\nmp-776050,\"{'Li': 2.0, 'Fe': 4.0, 'F': 18.0}\",\"('F', 'Fe', 'Li')\",OTHERS,True\nmp-680168,\"{'K': 8.0, 'Re': 12.0, 'C': 8.0, 'Se': 20.0, 'N': 8.0}\",\"('C', 'K', 'N', 'Re', 'Se')\",OTHERS,True\nmp-3062,\"{'N': 2.0, 'S': 3.0, 'Sm': 4.0}\",\"('N', 'S', 'Sm')\",OTHERS,True\nmp-698396,\"{'Cu': 2.0, 'H': 8.0, 'C': 4.0, 'N': 2.0, 'Cl': 6.0, 'O': 2.0}\",\"('C', 'Cl', 'Cu', 'H', 'N', 'O')\",OTHERS,True\nmp-754557,\"{'Eu': 2.0, 'Y': 4.0, 'O': 8.0}\",\"('Eu', 'O', 'Y')\",OTHERS,True\nmp-1185693,\"{'Mg': 1.0, 'B': 1.0, 'O': 3.0}\",\"('B', 'Mg', 'O')\",OTHERS,True\nmp-778080,\"{'Ba': 2.0, 'Y': 6.0, 'F': 22.0}\",\"('Ba', 'F', 'Y')\",OTHERS,True\nmp-738686,\"{'Sb': 2.0, 'H': 48.0, 'C': 12.0, 'N': 6.0, 'Cl': 12.0}\",\"('C', 'Cl', 'H', 'N', 'Sb')\",OTHERS,True\nmp-766205,\"{'Sr': 1.0, 'Li': 1.0, 'La': 15.0, 'Co': 4.0, 'O': 32.0}\",\"('Co', 'La', 'Li', 'O', 'Sr')\",OTHERS,True\nmp-1223863,\"{'In': 1.0, 'Cu': 1.0, 'Te': 2.0}\",\"('Cu', 'In', 'Te')\",OTHERS,True\nmp-697313,\"{'Al': 24.0, 'Tl': 10.0, 'Cd': 7.0, 'Si': 24.0, 'O': 96.0}\",\"('Al', 'Cd', 'O', 'Si', 'Tl')\",OTHERS,True\nmp-1187237,\"{'Sr': 6.0, 'Ce': 2.0}\",\"('Ce', 'Sr')\",OTHERS,True\nmp-763345,\"{'Li': 8.0, 'V': 4.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,True\nmvc-6576,\"{'Ca': 2.0, 'Sn': 4.0, 'O': 8.0}\",\"('Ca', 'O', 'Sn')\",OTHERS,True\nmp-561942,\"{'Cs': 3.0, 'Ta': 1.0, 'O': 8.0}\",\"('Cs', 'O', 'Ta')\",OTHERS,True\nmp-1222633,\"{'Mg': 4.0, 'Fe': 1.0, 'Cl': 1.0, 'O': 13.0}\",\"('Cl', 'Fe', 'Mg', 'O')\",OTHERS,True\nmp-867271,\"{'Be': 2.0, 'Co': 1.0, 'Ni': 1.0}\",\"('Be', 'Co', 'Ni')\",OTHERS,True\nmvc-513,\"{'Ba': 1.0, 'Zn': 1.0, 'Cu': 4.0, 'O': 8.0}\",\"('Ba', 'Cu', 'O', 'Zn')\",OTHERS,True\nmp-554810,\"{'Ba': 4.0, 'V': 2.0, 'P': 4.0, 'O': 18.0}\",\"('Ba', 'O', 'P', 'V')\",OTHERS,True\nmp-1100068,\"{'Ba': 4.0, 'Sr': 28.0, 'Co': 20.0, 'Cu': 12.0, 'O': 80.0}\",\"('Ba', 'Co', 'Cu', 'O', 'Sr')\",OTHERS,True\nmp-1238596,\"{'Mg': 2.0, 'V': 10.0, 'H': 40.0, 'N': 2.0, 'O': 44.0}\",\"('H', 'Mg', 'N', 'O', 'V')\",OTHERS,True\nmp-21281,\"{'Mn': 2.0, 'Ge': 2.0, 'Th': 1.0}\",\"('Ge', 'Mn', 'Th')\",OTHERS,True\nmp-770400,\"{'Li': 8.0, 'Al': 4.0, 'Ni': 4.0, 'O': 16.0}\",\"('Al', 'Li', 'Ni', 'O')\",OTHERS,True\nmp-685216,\"{'Nb': 24.0, 'Tl': 2.0, 'Te': 32.0}\",\"('Nb', 'Te', 'Tl')\",OTHERS,True\nmp-31157,\"{'N': 1.0, 'Ca': 3.0, 'Sb': 1.0}\",\"('Ca', 'N', 'Sb')\",OTHERS,True\nmp-1221080,\"{'Na': 1.0, 'Ce': 1.0, 'Ti': 2.0, 'O': 6.0}\",\"('Ce', 'Na', 'O', 'Ti')\",OTHERS,True\nmp-1208022,\"{'Tl': 1.0, 'S': 2.0, 'N': 1.0, 'O': 8.0}\",\"('N', 'O', 'S', 'Tl')\",OTHERS,True\nmp-1018687,\"{'Er': 2.0, 'S': 4.0}\",\"('Er', 'S')\",OTHERS,True\nmp-1219596,\"{'Rb': 5.0, 'Bi': 4.0}\",\"('Bi', 'Rb')\",OTHERS,True\nmp-1237926,\"{'Lu': 4.0, 'Mg': 4.0, 'Se': 12.0}\",\"('Lu', 'Mg', 'Se')\",OTHERS,True\nmp-777676,\"{'Li': 4.0, 'V': 4.0, 'F': 12.0}\",\"('F', 'Li', 'V')\",OTHERS,True\nmp-12221,\"{'O': 16.0, 'Ca': 4.0, 'Te': 4.0}\",\"('Ca', 'O', 'Te')\",OTHERS,True\nmp-1212003,\"{'La': 12.0, 'Fe': 20.0, 'O': 48.0}\",\"('Fe', 'La', 'O')\",OTHERS,True\nmp-1176989,\"{'Li': 12.0, 'Mn': 2.0, 'V': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,True\nmp-22753,\"{'C': 4.0, 'Fe': 2.0, 'U': 2.0}\",\"('C', 'Fe', 'U')\",OTHERS,True\nmp-756780,\"{'Ti': 3.0, 'Mn': 3.0, 'Cr': 2.0, 'O': 16.0}\",\"('Cr', 'Mn', 'O', 'Ti')\",OTHERS,True\nmp-3804,\"{'P': 2.0, 'Sr': 1.0, 'Ru': 2.0}\",\"('P', 'Ru', 'Sr')\",OTHERS,True\nmp-1190833,\"{'Nd': 2.0, 'Si': 4.0, 'Ni': 18.0}\",\"('Nd', 'Ni', 'Si')\",OTHERS,True\nmp-653248,\"{'Cr': 24.0, 'B': 56.0, 'Cl': 8.0, 'O': 104.0}\",\"('B', 'Cl', 'Cr', 'O')\",OTHERS,True\nmp-705411,\"{'W': 6.0, 'O': 18.0}\",\"('O', 'W')\",OTHERS,True\nmp-1220084,\"{'Nd': 2.0, 'Ti': 2.0, 'Cd': 2.0, 'Sb': 2.0, 'O': 14.0}\",\"('Cd', 'Nd', 'O', 'Sb', 'Ti')\",OTHERS,True\nmp-849636,\"{'Sr': 4.0, 'Ta': 4.0, 'N': 4.0, 'O': 8.0}\",\"('N', 'O', 'Sr', 'Ta')\",OTHERS,True\nmp-19166,\"{'O': 12.0, 'Ni': 2.0, 'Sr': 6.0, 'Pt': 2.0}\",\"('Ni', 'O', 'Pt', 'Sr')\",OTHERS,True\nmp-1093897,\"{'Li': 2.0, 'La': 1.0, 'Al': 1.0}\",\"('Al', 'La', 'Li')\",OTHERS,True\nmp-707274,\"{'H': 26.0, 'Se': 4.0, 'N': 6.0, 'O': 16.0}\",\"('H', 'N', 'O', 'Se')\",OTHERS,True\nmp-18973,\"{'O': 20.0, 'Co': 4.0, 'Se': 8.0}\",\"('Co', 'O', 'Se')\",OTHERS,True\nmp-557364,\"{'Cd': 8.0, 'B': 16.0, 'F': 64.0}\",\"('B', 'Cd', 'F')\",OTHERS,True\nmp-540592,\"{'Fe': 8.0, 'Te': 12.0, 'O': 36.0}\",\"('Fe', 'O', 'Te')\",OTHERS,True\nmp-5568,\"{'B': 4.0, 'Co': 11.0, 'Nd': 3.0}\",\"('B', 'Co', 'Nd')\",OTHERS,True\nmp-19435,\"{'O': 8.0, 'Co': 2.0, 'Mo': 2.0}\",\"('Co', 'Mo', 'O')\",OTHERS,True\nmp-1227989,\"{'Ba': 1.0, 'Sr': 1.0, 'Al': 20.0, 'Cu': 2.0, 'O': 34.0}\",\"('Al', 'Ba', 'Cu', 'O', 'Sr')\",OTHERS,True\nmp-504578,\"{'Mg': 4.0, 'Cr': 4.0, 'O': 16.0}\",\"('Cr', 'Mg', 'O')\",OTHERS,True\nmp-1178644,\"{'Zn': 1.0, 'Ga': 1.0, 'Cu': 3.0, 'Se': 4.0}\",\"('Cu', 'Ga', 'Se', 'Zn')\",OTHERS,True\nmp-28980,\"{'K': 12.0, 'Bi': 4.0, 'Se': 12.0}\",\"('Bi', 'K', 'Se')\",OTHERS,True\nmp-1197535,\"{'Y': 8.0, 'Nb': 12.0, 'Ge': 16.0}\",\"('Ge', 'Nb', 'Y')\",OTHERS,True\nmp-540258,\"{'O': 24.0, 'P': 8.0, 'Ti': 2.0}\",\"('O', 'P', 'Ti')\",OTHERS,True\nmp-989643,\"{'La': 2.0, 'Co': 2.0, 'N': 6.0}\",\"('Co', 'La', 'N')\",OTHERS,True\nmp-752900,\"{'Li': 4.0, 'Fe': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,True\nmp-33320,\"{'Ca': 4.0, 'U': 4.0, 'S': 8.0}\",\"('Ca', 'S', 'U')\",OTHERS,True\nmp-1174359,\"{'Li': 8.0, 'Mn': 6.0, 'O': 14.0}\",\"('Li', 'Mn', 'O')\",OTHERS,True\nmp-1207174,\"{'Li': 1.0, 'Al': 2.0, 'Ge': 1.0}\",\"('Al', 'Ge', 'Li')\",OTHERS,True\nmp-1178290,\"{'Fe': 8.0, 'O': 2.0, 'F': 14.0}\",\"('F', 'Fe', 'O')\",OTHERS,True\nmp-672654,\"{'Zr': 6.0, 'Co': 16.0, 'Ge': 7.0}\",\"('Co', 'Ge', 'Zr')\",OTHERS,True\nmp-567353,\"{'Mn': 2.0, 'Si': 2.0, 'Ni': 2.0}\",\"('Mn', 'Ni', 'Si')\",OTHERS,True\nmp-1198694,\"{'Cs': 4.0, 'V': 4.0, 'P': 4.0, 'O': 20.0}\",\"('Cs', 'O', 'P', 'V')\",OTHERS,True\nmp-1009113,\"{'Ho': 1.0, 'Hg': 2.0}\",\"('Hg', 'Ho')\",OTHERS,True\nmp-1175674,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-19911,\"{'Co': 1.0, 'In': 5.0, 'Tm': 1.0}\",\"('Co', 'In', 'Tm')\",OTHERS,True\nmp-1207835,\"{'Tm': 6.0, 'Sb': 2.0, 'O': 14.0}\",\"('O', 'Sb', 'Tm')\",OTHERS,True\nmp-1208811,\"{'Sr': 2.0, 'Lu': 1.0, 'Cu': 2.0, 'Bi': 2.0, 'O': 8.0}\",\"('Bi', 'Cu', 'Lu', 'O', 'Sr')\",OTHERS,True\nmp-562762,\"{'Ba': 4.0, 'Co': 2.0, 'Se': 4.0, 'Cl': 4.0, 'O': 12.0}\",\"('Ba', 'Cl', 'Co', 'O', 'Se')\",OTHERS,True\nmp-1208733,\"{'Sr': 2.0, 'Ta': 1.0, 'Co': 1.0, 'O': 6.0}\",\"('Co', 'O', 'Sr', 'Ta')\",OTHERS,True\nmp-1189703,\"{'Yb': 4.0, 'Ge': 8.0, 'Pd': 4.0}\",\"('Ge', 'Pd', 'Yb')\",OTHERS,True\nmp-1175349,\"{'Li': 7.0, 'Mn': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,True\nmp-1025271,\"{'Al': 1.0, 'P': 1.0, 'Pt': 5.0}\",\"('Al', 'P', 'Pt')\",OTHERS,True\nmp-29154,\"{'P': 2.0, 'Co': 2.0, 'Hf': 4.0}\",\"('Co', 'Hf', 'P')\",OTHERS,True\nmp-1193044,\"{'Bi': 2.0, 'P': 6.0, 'N': 2.0, 'O': 20.0}\",\"('Bi', 'N', 'O', 'P')\",OTHERS,True\nmp-744576,\"{'Co': 4.0, 'H': 32.0, 'S': 4.0, 'O': 32.0}\",\"('Co', 'H', 'O', 'S')\",OTHERS,True\nmp-13938,\"{'O': 6.0, 'Sr': 2.0, 'Dy': 1.0, 'Re': 1.0}\",\"('Dy', 'O', 'Re', 'Sr')\",OTHERS,True\nmp-1204722,\"{'Ba': 4.0, 'Zr': 2.0, 'C': 16.0, 'O': 38.0}\",\"('Ba', 'C', 'O', 'Zr')\",OTHERS,True\nmp-763560,\"{'Li': 1.0, 'Mn': 2.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-21479,\"{'Rh': 1.0, 'In': 5.0, 'La': 1.0}\",\"('In', 'La', 'Rh')\",OTHERS,True\nmp-569098,\"{'Rb': 4.0, 'Na': 44.0, 'W': 16.0, 'N': 48.0}\",\"('N', 'Na', 'Rb', 'W')\",OTHERS,True\nmp-976135,\"{'Pr': 1.0, 'Er': 3.0}\",\"('Er', 'Pr')\",OTHERS,True\nmp-752428,\"{'Rb': 8.0, 'Pr': 4.0, 'O': 12.0}\",\"('O', 'Pr', 'Rb')\",OTHERS,True\nmp-773438,\"{'Li': 10.0, 'Cu': 2.0, 'P': 4.0, 'O': 16.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,True\nmp-22998,\"{'S': 2.0, 'Cr': 2.0, 'Br': 2.0}\",\"('Br', 'Cr', 'S')\",OTHERS,True\nmp-568225,\"{'Tb': 4.0, 'B': 16.0}\",\"('B', 'Tb')\",OTHERS,True\nmp-1101228,\"{'V': 4.0, 'F': 18.0}\",\"('F', 'V')\",OTHERS,True\nmp-849589,\"{'Li': 5.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-204,\"{'Fe': 4.0, 'Ce': 2.0}\",\"('Ce', 'Fe')\",OTHERS,True\nmp-851103,\"{'Li': 4.0, 'V': 4.0, 'P': 8.0, 'H': 8.0, 'O': 32.0}\",\"('H', 'Li', 'O', 'P', 'V')\",OTHERS,True\nmp-1198901,\"{'Cs': 4.0, 'Cu': 2.0, 'H': 16.0, 'Se': 4.0, 'O': 24.0}\",\"('Cs', 'Cu', 'H', 'O', 'Se')\",OTHERS,True\nmp-1102476,\"{'Tb': 4.0, 'As': 4.0, 'Se': 4.0}\",\"('As', 'Se', 'Tb')\",OTHERS,True\nmp-1209123,\"{'Rh': 4.0, 'W': 2.0, 'O': 12.0}\",\"('O', 'Rh', 'W')\",OTHERS,True\nmp-1211067,\"{'Li': 2.0, 'Tm': 4.0, 'Br': 10.0}\",\"('Br', 'Li', 'Tm')\",OTHERS,True\nmp-569273,\"{'Mg': 88.0, 'Ir': 14.0}\",\"('Ir', 'Mg')\",OTHERS,True\nmp-5259,\"{'F': 8.0, 'Al': 2.0, 'Rb': 2.0}\",\"('Al', 'F', 'Rb')\",OTHERS,True\nmp-11644,\"{'Li': 4.0, 'Ca': 2.0}\",\"('Ca', 'Li')\",OTHERS,True\nmp-1246153,\"{'Ti': 6.0, 'N': 4.0}\",\"('N', 'Ti')\",OTHERS,True\nmp-757163,\"{'Li': 1.0, 'V': 1.0, 'F': 6.0}\",\"('F', 'Li', 'V')\",OTHERS,True\nmp-28177,\"{'Na': 2.0, 'Cl': 12.0, 'Sb': 2.0}\",\"('Cl', 'Na', 'Sb')\",OTHERS,True\nmp-756074,\"{'Bi': 4.0, 'P': 2.0, 'O': 12.0}\",\"('Bi', 'O', 'P')\",OTHERS,True\nmp-1189145,\"{'Dy': 4.0, 'Si': 8.0, 'Mo': 6.0}\",\"('Dy', 'Mo', 'Si')\",OTHERS,True\nmp-1104602,\"{'Cu': 2.0, 'Ag': 1.0, 'S': 2.0, 'O': 10.0}\",\"('Ag', 'Cu', 'O', 'S')\",OTHERS,True\nmp-1210034,\"{'Nd': 12.0, 'Ti': 4.0, 'Cl': 20.0, 'O': 16.0}\",\"('Cl', 'Nd', 'O', 'Ti')\",OTHERS,True\nmp-1224293,\"{'Ho': 4.0, 'Fe': 2.0, 'Mo': 2.0, 'O': 14.0}\",\"('Fe', 'Ho', 'Mo', 'O')\",OTHERS,True\nmp-1211602,\"{'Li': 4.0, 'Lu': 16.0, 'Ge': 16.0}\",\"('Ge', 'Li', 'Lu')\",OTHERS,True\nmp-3222,\"{'O': 14.0, 'Ru': 2.0, 'La': 6.0}\",\"('La', 'O', 'Ru')\",OTHERS,True\nmp-1177550,\"{'Li': 8.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-14763,\"{'N': 6.0, 'Ca': 6.0, 'Mn': 2.0}\",\"('Ca', 'Mn', 'N')\",OTHERS,True\nmp-1179693,\"{'Rb': 2.0, 'Mn': 2.0, 'As': 2.0}\",\"('As', 'Mn', 'Rb')\",OTHERS,True\nmp-754054,\"{'Li': 2.0, 'V': 1.0, 'Cr': 1.0, 'O': 4.0}\",\"('Cr', 'Li', 'O', 'V')\",OTHERS,True\nmp-1211839,\"{'K': 2.0, 'Al': 4.0, 'Si': 8.0, 'H': 4.0, 'O': 24.0}\",\"('Al', 'H', 'K', 'O', 'Si')\",OTHERS,True\nmp-758542,\"{'Li': 24.0, 'Cu': 24.0, 'P': 24.0, 'O': 96.0}\",\"('Cu', 'Li', 'O', 'P')\",OTHERS,True\nmp-754447,\"{'Cd': 6.0, 'Co': 5.0, 'O': 15.0}\",\"('Cd', 'Co', 'O')\",OTHERS,True\nmp-2776,\"{'Ga': 2.0, 'Au': 1.0}\",\"('Au', 'Ga')\",OTHERS,True\nmp-1214847,\"{'B': 8.0, 'H': 16.0, 'O': 16.0}\",\"('B', 'H', 'O')\",OTHERS,True\nmp-1199853,\"{'In': 2.0, 'S': 6.0, 'N': 6.0, 'O': 24.0}\",\"('In', 'N', 'O', 'S')\",OTHERS,True\nmp-759232,\"{'Li': 1.0, 'Mn': 1.0, 'V': 1.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,True\nmvc-7769,\"{'Mg': 2.0, 'Ni': 4.0, 'O': 8.0}\",\"('Mg', 'Ni', 'O')\",OTHERS,True\nmp-17165,\"{'C': 12.0, 'N': 12.0, 'Na': 2.0, 'Cr': 2.0, 'Cs': 4.0}\",\"('C', 'Cr', 'Cs', 'N', 'Na')\",OTHERS,True\nmp-772650,\"{'Li': 8.0, 'Cr': 20.0, 'O': 48.0}\",\"('Cr', 'Li', 'O')\",OTHERS,True\nmp-862934,\"{'Pm': 1.0, 'Li': 2.0, 'Tl': 1.0}\",\"('Li', 'Pm', 'Tl')\",OTHERS,True\nmp-20061,\"{'Ge': 3.0, 'Pt': 6.0}\",\"('Ge', 'Pt')\",OTHERS,True\nmvc-12291,\"{'Ca': 2.0, 'V': 4.0, 'Ni': 4.0, 'P': 8.0, 'O': 36.0}\",\"('Ca', 'Ni', 'O', 'P', 'V')\",OTHERS,True\nmp-766441,\"{'Li': 4.0, 'V': 2.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Li', 'O', 'V')\",OTHERS,True\nmp-1217015,\"{'Ti': 1.0, 'Al': 2.0, 'V': 1.0}\",\"('Al', 'Ti', 'V')\",OTHERS,True\nAl 65 Cu 20 Os 15,\"{'Al': 65.0, 'Cu': 20.0, 'Os': 15.0}\",\"('Al', 'Cu', 'Os')\",QC,True\nmp-6853,\"{'O': 14.0, 'Si': 2.0, 'Ca': 3.0, 'Ga': 3.0, 'Ta': 1.0}\",\"('Ca', 'Ga', 'O', 'Si', 'Ta')\",OTHERS,True\nmp-752601,\"{'Na': 1.0, 'Mn': 3.0, 'O': 4.0}\",\"('Mn', 'Na', 'O')\",OTHERS,True\nmp-780053,\"{'Na': 16.0, 'Ge': 16.0, 'O': 40.0}\",\"('Ge', 'Na', 'O')\",OTHERS,True\nmp-680260,\"{'Ti': 45.0, 'Se': 16.0}\",\"('Se', 'Ti')\",OTHERS,True\nmp-17230,\"{'Ga': 2.0, 'Nb': 10.0, 'Sn': 4.0}\",\"('Ga', 'Nb', 'Sn')\",OTHERS,True\nmp-1228976,\"{'Ba': 9.0, 'Bi': 18.0, 'S': 36.0}\",\"('Ba', 'Bi', 'S')\",OTHERS,True\nmp-1180189,\"{'Na': 1.0, 'Al': 3.0, 'Cr': 2.0, 'O': 14.0}\",\"('Al', 'Cr', 'Na', 'O')\",OTHERS,True\nmp-1017467,\"{'Ca': 1.0, 'Mn': 1.0, 'O': 3.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,True\nmp-675771,\"{'Al': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Al', 'O', 'P')\",OTHERS,True\nmp-1196864,\"{'K': 4.0, 'In': 4.0, 'P': 8.0, 'O': 32.0}\",\"('In', 'K', 'O', 'P')\",OTHERS,True\nmp-30960,\"{'O': 24.0, 'Dy': 4.0, 'W': 6.0}\",\"('Dy', 'O', 'W')\",OTHERS,True\nmp-1096377,\"{'Ti': 2.0, 'Ga': 1.0, 'Tc': 1.0}\",\"('Ga', 'Tc', 'Ti')\",OTHERS,True\nmp-1020025,\"{'Li': 16.0, 'B': 48.0, 'O': 80.0}\",\"('B', 'Li', 'O')\",OTHERS,True\nmp-760690,\"{'Li': 8.0, 'Te': 1.0, 'O': 6.0}\",\"('Li', 'O', 'Te')\",OTHERS,True\nmp-1206098,\"{'Zr': 1.0, 'Mn': 1.0, 'F': 6.0}\",\"('F', 'Mn', 'Zr')\",OTHERS,True\nmp-1175530,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1204808,\"{'Na': 4.0, 'Li': 4.0, 'Ni': 2.0, 'P': 12.0, 'H': 48.0, 'O': 60.0}\",\"('H', 'Li', 'Na', 'Ni', 'O', 'P')\",OTHERS,True\nmp-999145,\"{'Sm': 2.0, 'Ni': 2.0}\",\"('Ni', 'Sm')\",OTHERS,True\nmp-1177080,\"{'Li': 10.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-861904,\"{'La': 6.0, 'Al': 2.0, 'Cr': 2.0, 'S': 14.0}\",\"('Al', 'Cr', 'La', 'S')\",OTHERS,True\nmp-557322,\"{'Bi': 4.0, 'Te': 2.0, 'Br': 2.0, 'O': 9.0}\",\"('Bi', 'Br', 'O', 'Te')\",OTHERS,True\nmp-707958,\"{'P': 2.0, 'H': 18.0, 'C': 4.0, 'N': 8.0, 'O': 10.0}\",\"('C', 'H', 'N', 'O', 'P')\",OTHERS,True\nmp-28838,\"{'C': 2.0, 'Si': 2.0, 'U': 3.0}\",\"('C', 'Si', 'U')\",OTHERS,True\nmp-1261917,\"{'Ba': 2.0, 'Al': 2.0, 'W': 8.0, 'O': 14.0}\",\"('Al', 'Ba', 'O', 'W')\",OTHERS,True\nmp-3849,\"{'S': 4.0, 'Fe': 2.0, 'Tl': 2.0}\",\"('Fe', 'S', 'Tl')\",OTHERS,True\nmp-26903,\"{'Li': 6.0, 'V': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-684690,\"{'Sc': 4.0, 'Se': 6.0}\",\"('Sc', 'Se')\",OTHERS,True\nmvc-8750,\"{'Zn': 1.0, 'Sn': 4.0, 'O': 8.0}\",\"('O', 'Sn', 'Zn')\",OTHERS,True\nmp-645796,\"{'Tl': 4.0, 'Fe': 4.0, 'Mo': 8.0, 'O': 32.0}\",\"('Fe', 'Mo', 'O', 'Tl')\",OTHERS,True\nmp-759038,\"{'Li': 4.0, 'Ti': 2.0, 'Fe': 3.0, 'Co': 3.0, 'O': 16.0}\",\"('Co', 'Fe', 'Li', 'O', 'Ti')\",OTHERS,True\nmp-614444,\"{'Zr': 1.0, 'Zn': 1.0}\",\"('Zn', 'Zr')\",OTHERS,True\nmp-1192359,\"{'Cs': 4.0, 'Mn': 2.0, 'Te': 4.0, 'S': 12.0}\",\"('Cs', 'Mn', 'S', 'Te')\",OTHERS,True\nmp-22623,\"{'Cu': 4.0, 'Ge': 4.0, 'Ce': 3.0}\",\"('Ce', 'Cu', 'Ge')\",OTHERS,True\nmp-22399,\"{'O': 4.0, 'S': 8.0, 'Yb': 8.0}\",\"('O', 'S', 'Yb')\",OTHERS,True\nmp-1211411,\"{'Li': 24.0, 'Sn': 24.0, 'Pt': 16.0}\",\"('Li', 'Pt', 'Sn')\",OTHERS,True\nmp-1181733,\"{'K': 4.0, 'Ba': 4.0, 'V': 20.0, 'O': 72.0}\",\"('Ba', 'K', 'O', 'V')\",OTHERS,True\nmp-30656,\"{'Ti': 3.0, 'Ni': 3.0, 'Ga': 3.0}\",\"('Ga', 'Ni', 'Ti')\",OTHERS,True\nmp-1245020,\"{'W': 34.0, 'O': 68.0}\",\"('O', 'W')\",OTHERS,True\nmp-1207202,\"{'La': 1.0, 'P': 2.0, 'Pd': 2.0}\",\"('La', 'P', 'Pd')\",OTHERS,True\nmp-1209593,\"{'Rb': 4.0, 'Cu': 2.0, 'Cl': 8.0, 'O': 4.0}\",\"('Cl', 'Cu', 'O', 'Rb')\",OTHERS,True\nmp-764374,\"{'Li': 4.0, 'Mn': 8.0, 'O': 2.0, 'F': 16.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1247221,\"{'Lu': 3.0, 'Mg': 2.0, 'Mn': 1.0, 'S': 8.0}\",\"('Lu', 'Mg', 'Mn', 'S')\",OTHERS,True\nmp-4865,\"{'Ni': 2.0, 'Ge': 2.0, 'Er': 1.0}\",\"('Er', 'Ge', 'Ni')\",OTHERS,True\nmp-3071,\"{'B': 2.0, 'Ni': 13.0, 'Nd': 3.0}\",\"('B', 'Nd', 'Ni')\",OTHERS,True\nmp-1100553,\"{'Li': 9.0, 'Mn': 7.0, 'O': 16.0}\",\"('Li', 'Mn', 'O')\",OTHERS,True\nmp-1199487,\"{'Mo': 4.0, 'H': 32.0, 'S': 16.0, 'N': 8.0}\",\"('H', 'Mo', 'N', 'S')\",OTHERS,True\nmp-570525,\"{'La': 8.0, 'Zn': 8.0, 'Rh': 8.0}\",\"('La', 'Rh', 'Zn')\",OTHERS,True\nmp-1246782,\"{'Al': 4.0, 'Ni': 2.0, 'N': 6.0}\",\"('Al', 'N', 'Ni')\",OTHERS,True\nmp-1180,\"{'Mn': 1.0, 'Pt': 3.0}\",\"('Mn', 'Pt')\",OTHERS,True\nmp-1217101,\"{'Ti': 3.0, 'S': 4.0}\",\"('S', 'Ti')\",OTHERS,True\nmp-772728,\"{'Na': 10.0, 'Li': 2.0, 'Mn': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Li', 'Mn', 'Na', 'O', 'P')\",OTHERS,True\nmp-1037039,\"{'Mg': 30.0, 'Fe': 1.0, 'Co': 1.0, 'O': 32.0}\",\"('Co', 'Fe', 'Mg', 'O')\",OTHERS,True\nmp-1200531,\"{'Mn': 1.0, 'H': 44.0, 'C': 12.0, 'N': 8.0, 'Cl': 2.0, 'O': 10.0}\",\"('C', 'Cl', 'H', 'Mn', 'N', 'O')\",OTHERS,True\nmp-1205455,\"{'Sn': 4.0, 'Se': 4.0}\",\"('Se', 'Sn')\",OTHERS,True\nmp-1178831,\"{'V': 8.0, 'O': 14.0}\",\"('O', 'V')\",OTHERS,True\nmp-1040135,\"{'Li': 1.0, 'Mg': 30.0, 'B': 1.0, 'O': 32.0}\",\"('B', 'Li', 'Mg', 'O')\",OTHERS,True\nmp-1222656,\"{'Li': 2.0, 'Ti': 1.0, 'O': 3.0}\",\"('Li', 'O', 'Ti')\",OTHERS,True\nmp-1084826,\"{'Nd': 4.0, 'Co': 6.0}\",\"('Co', 'Nd')\",OTHERS,True\nmp-1077232,\"{'W': 2.0, 'N': 4.0}\",\"('N', 'W')\",OTHERS,True\nmp-867795,\"{'Sc': 1.0, 'Nb': 1.0, 'Tc': 2.0}\",\"('Nb', 'Sc', 'Tc')\",OTHERS,True\nGa 2.3 Cu 3.7 Sc 1,\"{'Ga': 2.3, 'Cu': 3.7, 'Sc': 1.0}\",\"('Cu', 'Ga', 'Sc')\",AC,True\nmp-1183996,\"{'Cu': 6.0, 'F': 2.0}\",\"('Cu', 'F')\",OTHERS,True\nmp-1185104,\"{'K': 1.0, 'In': 3.0}\",\"('In', 'K')\",OTHERS,True\nmp-758310,\"{'Li': 12.0, 'Ti': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'O', 'P', 'Ti')\",OTHERS,True\nmp-1184494,\"{'Gd': 1.0, 'Cd': 1.0, 'Pt': 2.0}\",\"('Cd', 'Gd', 'Pt')\",OTHERS,True\nmp-757851,\"{'Li': 8.0, 'Co': 12.0, 'Ni': 4.0, 'O': 32.0}\",\"('Co', 'Li', 'Ni', 'O')\",OTHERS,True\nmp-775258,\"{'Li': 8.0, 'Mn': 2.0, 'Fe': 6.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1073477,\"{'Mg': 4.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-979057,\"{'Sm': 2.0, 'Zn': 1.0, 'Ag': 1.0}\",\"('Ag', 'Sm', 'Zn')\",OTHERS,True\nmp-21005,\"{'In': 1.0, 'Gd': 1.0}\",\"('Gd', 'In')\",OTHERS,True\nmp-772075,\"{'Li': 12.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-1114575,\"{'Rb': 2.0, 'Li': 1.0, 'Sb': 1.0, 'Br': 6.0}\",\"('Br', 'Li', 'Rb', 'Sb')\",OTHERS,True\nmp-684620,\"{'Nb': 25.0, 'S': 48.0}\",\"('Nb', 'S')\",OTHERS,True\nmp-1183381,\"{'Ba': 2.0, 'Zn': 1.0, 'In': 1.0}\",\"('Ba', 'In', 'Zn')\",OTHERS,True\nmp-1093817,\"{'Cs': 2.0, 'Hg': 1.0, 'Au': 1.0}\",\"('Au', 'Cs', 'Hg')\",OTHERS,True\nmp-1147544,\"{'Ba': 2.0, 'Tl': 1.0, 'Cu': 3.0, 'O': 7.0}\",\"('Ba', 'Cu', 'O', 'Tl')\",OTHERS,True\nmp-1177993,\"{'Li': 8.0, 'Mn': 12.0, 'Sn': 4.0, 'O': 32.0}\",\"('Li', 'Mn', 'O', 'Sn')\",OTHERS,True\nmp-1178068,\"{'Li': 24.0, 'Ti': 1.0, 'Cr': 11.0, 'O': 36.0}\",\"('Cr', 'Li', 'O', 'Ti')\",OTHERS,True\nmp-645504,\"{'Yb': 46.0, 'Mg': 8.0, 'Cu': 14.0}\",\"('Cu', 'Mg', 'Yb')\",OTHERS,True\nmp-1245152,{'Al': 100.0},\"('Al',)\",OTHERS,True\nmp-571607,\"{'Cd': 12.0, 'I': 24.0}\",\"('Cd', 'I')\",OTHERS,True\nmp-1197275,\"{'Tb': 8.0, 'Fe': 56.0, 'C': 4.0}\",\"('C', 'Fe', 'Tb')\",OTHERS,True\nmp-1207321,\"{'Pr': 2.0, 'Cu': 1.0, 'Sb': 3.0}\",\"('Cu', 'Pr', 'Sb')\",OTHERS,True\nmp-1266446,\"{'Li': 20.0, 'Cu': 2.0, 'Si': 4.0, 'O': 20.0}\",\"('Cu', 'Li', 'O', 'Si')\",OTHERS,True\nmp-1193638,\"{'Nb': 8.0, 'Fe': 2.0, 'Se': 16.0}\",\"('Fe', 'Nb', 'Se')\",OTHERS,True\nmp-757601,\"{'Ba': 8.0, 'Fe': 8.0, 'O': 21.0}\",\"('Ba', 'Fe', 'O')\",OTHERS,True\nmp-1028604,\"{'Te': 4.0, 'W': 4.0, 'S': 4.0}\",\"('S', 'Te', 'W')\",OTHERS,True\nmp-1078906,\"{'Co': 1.0, 'Te': 1.0, 'Pb': 2.0, 'O': 6.0}\",\"('Co', 'O', 'Pb', 'Te')\",OTHERS,True\nmp-1080715,\"{'Sc': 3.0, 'Si': 3.0, 'Ru': 3.0}\",\"('Ru', 'Sc', 'Si')\",OTHERS,True\nmp-1246994,\"{'Zr': 4.0, 'Cr': 4.0, 'Ag': 4.0, 'S': 16.0}\",\"('Ag', 'Cr', 'S', 'Zr')\",OTHERS,True\nmp-1026034,\"{'Mo': 1.0, 'W': 2.0, 'S': 6.0}\",\"('Mo', 'S', 'W')\",OTHERS,True\nmp-999508,\"{'Mn': 1.0, 'Si': 1.0, 'Ni': 2.0}\",\"('Mn', 'Ni', 'Si')\",OTHERS,True\nmp-1912,\"{'Zn': 1.0, 'Ag': 1.0}\",\"('Ag', 'Zn')\",OTHERS,True\nmp-1212351,\"{'Na': 3.0, 'Cr': 1.0, 'O': 6.0}\",\"('Cr', 'Na', 'O')\",OTHERS,True\nAg 46.9 In 38.7 Pr 14.4,\"{'Ag': 46.9, 'In': 38.7, 'Pr': 14.4}\",\"('Ag', 'In', 'Pr')\",AC,True\nmp-559931,\"{'F': 6.0, 'V': 2.0}\",\"('F', 'V')\",OTHERS,True\nmp-744914,\"{'Ca': 8.0, 'Mg': 1.0, 'Al': 6.0, 'Si': 5.0, 'O': 28.0}\",\"('Al', 'Ca', 'Mg', 'O', 'Si')\",OTHERS,True\nmp-25886,\"{'Cu': 2.0, 'P': 2.0, 'O': 8.0}\",\"('Cu', 'O', 'P')\",OTHERS,True\nmp-690515,\"{'K': 2.0, 'Co': 1.0, 'H': 2.0, 'Se': 2.0, 'O': 10.0}\",\"('Co', 'H', 'K', 'O', 'Se')\",OTHERS,True\nmp-17745,\"{'F': 12.0, 'S': 2.0, 'Mn': 4.0, 'Hg': 4.0}\",\"('F', 'Hg', 'Mn', 'S')\",OTHERS,True\nmvc-5910,\"{'Mg': 2.0, 'Mo': 1.0, 'W': 1.0, 'O': 6.0}\",\"('Mg', 'Mo', 'O', 'W')\",OTHERS,True\nmp-567772,{'Na': 8.0},\"('Na',)\",OTHERS,True\nmp-21497,\"{'O': 10.0, 'S': 2.0, 'Pb': 4.0}\",\"('O', 'Pb', 'S')\",OTHERS,True\nmp-1221041,\"{'Na': 8.0, 'Zr': 3.0, 'Si': 16.0, 'Sn': 1.0, 'H': 16.0, 'O': 52.0}\",\"('H', 'Na', 'O', 'Si', 'Sn', 'Zr')\",OTHERS,True\nmp-29000,\"{'B': 40.0, 'Na': 24.0, 'S': 72.0}\",\"('B', 'Na', 'S')\",OTHERS,True\nmp-756921,\"{'Li': 1.0, 'Zn': 1.0, 'Fe': 10.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Zn')\",OTHERS,True\nmp-1194642,\"{'Fe': 2.0, 'H': 8.0, 'C': 6.0, 'O': 16.0}\",\"('C', 'Fe', 'H', 'O')\",OTHERS,True\nmp-1228195,\"{'Ba': 7.0, 'Nb': 4.0, 'Mo': 1.0, 'O': 20.0}\",\"('Ba', 'Mo', 'Nb', 'O')\",OTHERS,True\nmp-1214519,\"{'Ba': 12.0, 'Y': 4.0, 'Al': 8.0, 'O': 30.0}\",\"('Al', 'Ba', 'O', 'Y')\",OTHERS,True\nmp-558759,\"{'Cd': 8.0, 'Te': 12.0, 'Cl': 12.0, 'O': 26.0}\",\"('Cd', 'Cl', 'O', 'Te')\",OTHERS,True\nmp-510459,\"{'O': 8.0, 'V': 2.0, 'Mn': 2.0, 'Cu': 2.0}\",\"('Cu', 'Mn', 'O', 'V')\",OTHERS,True\nmp-610706,\"{'F': 6.0, 'Co': 1.0, 'Cs': 2.0}\",\"('Co', 'Cs', 'F')\",OTHERS,True\nmp-1033754,\"{'Hf': 1.0, 'Mg': 14.0, 'Sb': 1.0, 'O': 16.0}\",\"('Hf', 'Mg', 'O', 'Sb')\",OTHERS,True\nmp-32688,\"{'Nd': 16.0, 'Se': 24.0}\",\"('Nd', 'Se')\",OTHERS,True\nmp-1180728,\"{'Mg': 2.0, 'As': 2.0, 'N': 2.0, 'O': 20.0}\",\"('As', 'Mg', 'N', 'O')\",OTHERS,True\nmp-1208711,\"{'Sm': 4.0, 'Br': 8.0}\",\"('Br', 'Sm')\",OTHERS,True\nmp-974948,\"{'Rb': 3.0, 'In': 1.0}\",\"('In', 'Rb')\",OTHERS,True\nmp-1227254,\"{'Ca': 1.0, 'Mn': 1.0, 'Cu': 3.0, 'Ru': 3.0, 'O': 12.0}\",\"('Ca', 'Cu', 'Mn', 'O', 'Ru')\",OTHERS,True\nmp-1211085,\"{'Li': 2.0, 'Ca': 4.0, 'Fe': 2.0, 'N': 4.0}\",\"('Ca', 'Fe', 'Li', 'N')\",OTHERS,True\nmp-622213,\"{'Ge': 16.0, 'S': 32.0}\",\"('Ge', 'S')\",OTHERS,True\nmp-12275,\"{'Zn': 4.0, 'Sr': 4.0, 'Sb': 8.0}\",\"('Sb', 'Sr', 'Zn')\",OTHERS,True\nmp-706227,\"{'B': 6.0, 'H': 30.0, 'C': 24.0, 'N': 24.0, 'O': 12.0}\",\"('B', 'C', 'H', 'N', 'O')\",OTHERS,True\nmp-1215704,\"{'Zr': 3.0, 'Mn': 8.0, 'Al': 1.0}\",\"('Al', 'Mn', 'Zr')\",OTHERS,True\nmp-753013,\"{'Co': 3.0, 'Te': 1.0, 'O': 8.0}\",\"('Co', 'O', 'Te')\",OTHERS,True\nmp-982981,\"{'Na': 6.0, 'Rh': 2.0}\",\"('Na', 'Rh')\",OTHERS,True\nmp-4476,\"{'Si': 2.0, 'Cu': 2.0, 'Ho': 2.0}\",\"('Cu', 'Ho', 'Si')\",OTHERS,True\nmp-1195797,\"{'Hg': 4.0, 'Sb': 14.0, 'H': 4.0, 'Xe': 6.0, 'F': 118.0}\",\"('F', 'H', 'Hg', 'Sb', 'Xe')\",OTHERS,True\nmp-1079559,\"{'Cd': 2.0, 'P': 2.0, 'Se': 6.0}\",\"('Cd', 'P', 'Se')\",OTHERS,True\nmp-1225419,\"{'Fe': 16.0, 'Ni': 20.0, 'P': 12.0}\",\"('Fe', 'Ni', 'P')\",OTHERS,True\nmp-28630,\"{'B': 4.0, 'N': 8.0, 'Na': 12.0}\",\"('B', 'N', 'Na')\",OTHERS,True\nmp-9566,\"{'Mg': 2.0, 'Sr': 1.0, 'Sb': 2.0}\",\"('Mg', 'Sb', 'Sr')\",OTHERS,True\nmp-755597,\"{'Ca': 4.0, 'Ce': 2.0, 'O': 8.0}\",\"('Ca', 'Ce', 'O')\",OTHERS,True\nmp-541218,\"{'Gd': 4.0, 'P': 8.0, 'O': 40.0, 'H': 36.0}\",\"('Gd', 'H', 'O', 'P')\",OTHERS,True\nmp-1178106,\"{'Li': 4.0, 'Fe': 8.0, 'O': 16.0}\",\"('Fe', 'Li', 'O')\",OTHERS,True\nmp-1112148,\"{'Cs': 2.0, 'Na': 1.0, 'Mo': 1.0, 'I': 6.0}\",\"('Cs', 'I', 'Mo', 'Na')\",OTHERS,True\nmp-19879,\"{'P': 4.0, 'Pd': 12.0}\",\"('P', 'Pd')\",OTHERS,True\nmp-1222057,\"{'Mg': 1.0, 'Fe': 4.0, 'Co': 1.0, 'O': 8.0}\",\"('Co', 'Fe', 'Mg', 'O')\",OTHERS,True\nmp-768809,\"{'Li': 12.0, 'Bi': 4.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Bi', 'Li', 'O')\",OTHERS,True\nmp-27814,\"{'C': 1.0, 'S': 14.0}\",\"('C', 'S')\",OTHERS,True\nmp-685044,\"{'Yb': 16.0, 'S': 29.0}\",\"('S', 'Yb')\",OTHERS,True\nmp-8832,\"{'Si': 2.0, 'Cr': 2.0, 'Tb': 1.0}\",\"('Cr', 'Si', 'Tb')\",OTHERS,True\nmp-1096036,\"{'Sc': 1.0, 'Ga': 1.0, 'Ag': 2.0}\",\"('Ag', 'Ga', 'Sc')\",OTHERS,True\nmp-1114505,\"{'Rb': 2.0, 'Tl': 2.0, 'Br': 6.0}\",\"('Br', 'Rb', 'Tl')\",OTHERS,True\nmp-1218981,\"{'Sm': 1.0, 'Pa': 1.0, 'O': 4.0}\",\"('O', 'Pa', 'Sm')\",OTHERS,True\nZn 34.6 Mg 40 Al 25.4,\"{'Zn': 34.6, 'Mg': 40.0, 'Al': 25.4}\",\"('Al', 'Mg', 'Zn')\",AC,True\nmp-1188079,\"{'Zr': 8.0, 'In': 4.0, 'Ni': 8.0}\",\"('In', 'Ni', 'Zr')\",OTHERS,True\nmp-1182698,\"{'Fe': 16.0, 'H': 20.0, 'O': 34.0}\",\"('Fe', 'H', 'O')\",OTHERS,True\nmp-721058,\"{'Co': 8.0, 'P': 8.0, 'H': 24.0, 'O': 32.0}\",\"('Co', 'H', 'O', 'P')\",OTHERS,True\nmp-1206729,\"{'Nb': 1.0, 'Ga': 1.0, 'Pb': 2.0, 'O': 6.0}\",\"('Ga', 'Nb', 'O', 'Pb')\",OTHERS,True\nmp-3788,\"{'O': 14.0, 'Al': 8.0, 'Sr': 2.0}\",\"('Al', 'O', 'Sr')\",OTHERS,True\nmp-758930,\"{'Na': 40.0, 'Fe': 8.0, 'H': 8.0, 'O': 32.0}\",\"('Fe', 'H', 'Na', 'O')\",OTHERS,True\nmp-981384,\"{'Sc': 1.0, 'Os': 3.0}\",\"('Os', 'Sc')\",OTHERS,True\nmp-989537,\"{'Cs': 2.0, 'Tl': 1.0, 'In': 1.0, 'F': 6.0}\",\"('Cs', 'F', 'In', 'Tl')\",OTHERS,True\nmp-757613,\"{'Li': 8.0, 'Co': 12.0, 'Sb': 4.0, 'O': 32.0}\",\"('Co', 'Li', 'O', 'Sb')\",OTHERS,True\nmp-715517,\"{'V': 16.0, 'O': 32.0}\",\"('O', 'V')\",OTHERS,True\nmp-1019543,\"{'Ba': 8.0, 'Ca': 8.0, 'P': 16.0, 'O': 56.0}\",\"('Ba', 'Ca', 'O', 'P')\",OTHERS,True\nmp-557659,\"{'K': 2.0, 'V': 8.0, 'P': 14.0, 'O': 48.0}\",\"('K', 'O', 'P', 'V')\",OTHERS,True\nmp-1009752,\"{'Sc': 1.0, 'Si': 1.0}\",\"('Sc', 'Si')\",OTHERS,True\nmp-5149,\"{'Al': 1.0, 'Co': 2.0, 'Nb': 1.0}\",\"('Al', 'Co', 'Nb')\",OTHERS,True\nmp-684829,\"{'Co': 27.0, 'Se': 32.0}\",\"('Co', 'Se')\",OTHERS,True\nAu 65 Sn 20 Ce 15,\"{'Au': 65.0, 'Sn': 20.0, 'Ce': 15.0}\",\"('Au', 'Ce', 'Sn')\",AC,True\nmp-1198456,\"{'Na': 4.0, 'Zn': 2.0, 'P': 8.0, 'H': 32.0, 'O': 40.0}\",\"('H', 'Na', 'O', 'P', 'Zn')\",OTHERS,True\nmp-1191981,\"{'Ta': 7.0, 'B': 8.0, 'Ru': 6.0}\",\"('B', 'Ru', 'Ta')\",OTHERS,True\nmp-1093890,\"{'Li': 2.0, 'Tl': 1.0, 'Cd': 1.0}\",\"('Cd', 'Li', 'Tl')\",OTHERS,True\nmp-756466,\"{'Nb': 1.0, 'Co': 3.0, 'P': 4.0, 'O': 16.0}\",\"('Co', 'Nb', 'O', 'P')\",OTHERS,True\nmp-20276,\"{'F': 18.0, 'U': 4.0}\",\"('F', 'U')\",OTHERS,True\nmp-1102055,\"{'La': 4.0, 'As': 8.0}\",\"('As', 'La')\",OTHERS,True\nmp-1076181,\"{'Ba': 4.0, 'Sr': 28.0, 'Mn': 8.0, 'Fe': 24.0, 'O': 80.0}\",\"('Ba', 'Fe', 'Mn', 'O', 'Sr')\",OTHERS,True\nmp-1184025,\"{'Eu': 2.0, 'Mg': 1.0, 'In': 1.0}\",\"('Eu', 'In', 'Mg')\",OTHERS,True\nmp-1197569,\"{'Zn': 2.0, 'Ni': 21.0, 'B': 20.0}\",\"('B', 'Ni', 'Zn')\",OTHERS,True\nmp-1177426,\"{'Li': 4.0, 'Fe': 3.0, 'Cu': 2.0, 'Sn': 3.0, 'O': 16.0}\",\"('Cu', 'Fe', 'Li', 'O', 'Sn')\",OTHERS,True\nmp-769176,\"{'K': 40.0, 'Y': 8.0, 'O': 32.0}\",\"('K', 'O', 'Y')\",OTHERS,True\nmp-1113946,\"{'K': 1.0, 'Na': 2.0, 'Sb': 1.0, 'F': 6.0}\",\"('F', 'K', 'Na', 'Sb')\",OTHERS,True\nmp-1212862,\"{'Gd': 4.0, 'In': 8.0, 'Cl': 20.0}\",\"('Cl', 'Gd', 'In')\",OTHERS,True\nmp-1212745,\"{'Eu': 4.0, 'Er': 8.0, 'O': 16.0}\",\"('Er', 'Eu', 'O')\",OTHERS,True\nmp-1114541,\"{'K': 1.0, 'Rb': 2.0, 'Lu': 1.0, 'Cl': 6.0}\",\"('Cl', 'K', 'Lu', 'Rb')\",OTHERS,True\nmp-1218730,\"{'Sr': 2.0, 'Si': 3.0, 'Ni': 1.0}\",\"('Ni', 'Si', 'Sr')\",OTHERS,True\nmp-1173503,\"{'Na': 4.0, 'Pr': 8.0, 'Ti': 8.0, 'Mn': 4.0, 'O': 36.0}\",\"('Mn', 'Na', 'O', 'Pr', 'Ti')\",OTHERS,True\nmp-540783,\"{'Os': 2.0, 'O': 8.0}\",\"('O', 'Os')\",OTHERS,True\nmp-1218535,\"{'Sr': 1.0, 'Al': 3.0, 'P': 1.0, 'S': 1.0, 'O': 14.0}\",\"('Al', 'O', 'P', 'S', 'Sr')\",OTHERS,True\nmp-1206061,\"{'K': 3.0, 'U': 1.0, 'F': 6.0}\",\"('F', 'K', 'U')\",OTHERS,True\nmp-2573,\"{'Al': 3.0, 'Np': 1.0}\",\"('Al', 'Np')\",OTHERS,True\nmp-753708,\"{'Ti': 4.0, 'O': 4.0, 'F': 4.0}\",\"('F', 'O', 'Ti')\",OTHERS,True\nmp-1211125,\"{'Nd': 8.0, 'Co': 2.0, 'S': 14.0}\",\"('Co', 'Nd', 'S')\",OTHERS,True\nmp-8825,\"{'O': 44.0, 'Pr': 24.0}\",\"('O', 'Pr')\",OTHERS,True\nmp-772554,\"{'Li': 4.0, 'Nb': 3.0, 'V': 5.0, 'O': 16.0}\",\"('Li', 'Nb', 'O', 'V')\",OTHERS,True\nmp-849735,\"{'Li': 4.0, 'Cr': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,True\nmp-1147542,\"{'Ba': 2.0, 'Cu': 1.0, 'S': 2.0, 'Br': 2.0}\",\"('Ba', 'Br', 'Cu', 'S')\",OTHERS,True\nmp-763923,\"{'Co': 6.0, 'O': 4.0, 'F': 8.0}\",\"('Co', 'F', 'O')\",OTHERS,True\nmp-976806,\"{'Ni': 2.0, 'Au': 6.0}\",\"('Au', 'Ni')\",OTHERS,True\nmp-1095172,\"{'Cs': 2.0, 'Nd': 2.0, 'S': 4.0}\",\"('Cs', 'Nd', 'S')\",OTHERS,True\nmp-644223,\"{'Li': 2.0, 'B': 2.0, 'H': 8.0}\",\"('B', 'H', 'Li')\",OTHERS,True\nmp-998429,\"{'Ni': 2.0, 'Ag': 2.0, 'F': 6.0}\",\"('Ag', 'F', 'Ni')\",OTHERS,True\nmp-1101595,\"{'Mo': 4.0, 'P': 6.0, 'O': 24.0}\",\"('Mo', 'O', 'P')\",OTHERS,True\nmp-7524,\"{'P': 2.0, 'Se': 2.0, 'Nb': 2.0}\",\"('Nb', 'P', 'Se')\",OTHERS,True\nmp-643651,\"{'Rb': 6.0, 'Zn': 2.0, 'H': 10.0}\",\"('H', 'Rb', 'Zn')\",OTHERS,True\nmvc-16787,\"{'Zn': 2.0, 'Cr': 4.0, 'S': 8.0}\",\"('Cr', 'S', 'Zn')\",OTHERS,True\nmp-36480,\"{'Cu': 2.0, 'La': 4.0, 'O': 8.0}\",\"('Cu', 'La', 'O')\",OTHERS,True\nmp-1029262,\"{'V': 2.0, 'Zn': 4.0, 'N': 6.0}\",\"('N', 'V', 'Zn')\",OTHERS,True\nmp-774239,\"{'Li': 4.0, 'Co': 8.0, 'O': 16.0}\",\"('Co', 'Li', 'O')\",OTHERS,True\nmp-1018712,\"{'Hf': 1.0, 'Ga': 4.0, 'Co': 1.0}\",\"('Co', 'Ga', 'Hf')\",OTHERS,True\nmp-7999,\"{'O': 14.0, 'Si': 4.0, 'Y': 4.0}\",\"('O', 'Si', 'Y')\",OTHERS,True\nmp-673637,\"{'Ti': 27.0, 'S': 30.0}\",\"('S', 'Ti')\",OTHERS,True\nmp-1227962,\"{'Ba': 1.0, 'Cd': 3.0, 'Ga': 1.0}\",\"('Ba', 'Cd', 'Ga')\",OTHERS,True\nmp-31703,\"{'O': 4.0, 'F': 12.0, 'Cr': 4.0}\",\"('Cr', 'F', 'O')\",OTHERS,True\nmp-19314,\"{'Be': 6.0, 'O': 24.0, 'Si': 6.0, 'S': 2.0, 'Mn': 8.0}\",\"('Be', 'Mn', 'O', 'S', 'Si')\",OTHERS,True\nmp-1196301,\"{'La': 16.0, 'Mn': 8.0, 'Se': 16.0, 'O': 16.0}\",\"('La', 'Mn', 'O', 'Se')\",OTHERS,True\nmp-16750,\"{'Cu': 2.0, 'Ho': 2.0, 'Pb': 2.0}\",\"('Cu', 'Ho', 'Pb')\",OTHERS,True\nmp-753393,\"{'Na': 1.0, 'V': 1.0, 'O': 2.0}\",\"('Na', 'O', 'V')\",OTHERS,True\nmp-864742,\"{'Na': 3.0, 'Sn': 1.0}\",\"('Na', 'Sn')\",OTHERS,True\nmp-985829,\"{'Hf': 1.0, 'S': 2.0}\",\"('Hf', 'S')\",OTHERS,True\nmp-532329,\"{'Cu': 8.0, 'Fe': 12.0, 'S': 40.0}\",\"('Cu', 'Fe', 'S')\",OTHERS,True\nmp-1200744,\"{'Rb': 4.0, 'Cd': 6.0, 'B': 32.0, 'O': 56.0}\",\"('B', 'Cd', 'O', 'Rb')\",OTHERS,True\nmp-26765,\"{'Li': 2.0, 'O': 48.0, 'P': 14.0, 'V': 12.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-558193,\"{'K': 2.0, 'Cu': 3.0, 'As': 4.0, 'O': 12.0}\",\"('As', 'Cu', 'K', 'O')\",OTHERS,True\nmp-983539,\"{'Be': 1.0, 'Au': 3.0}\",\"('Au', 'Be')\",OTHERS,True\nmp-761153,\"{'U': 6.0, 'O': 11.0}\",\"('O', 'U')\",OTHERS,True\nmp-30454,\"{'Er': 1.0, 'Pt': 1.0, 'Bi': 1.0}\",\"('Bi', 'Er', 'Pt')\",OTHERS,True\nmp-1094692,\"{'Mg': 48.0, 'Al': 39.0}\",\"('Al', 'Mg')\",OTHERS,True\nmp-569015,\"{'Mg': 8.0, 'Cu': 8.0, 'As': 8.0}\",\"('As', 'Cu', 'Mg')\",OTHERS,True\nmp-1247341,\"{'La': 1.0, 'Mg': 2.0, 'V': 3.0, 'S': 8.0}\",\"('La', 'Mg', 'S', 'V')\",OTHERS,True\nmp-1187044,\"{'Sn': 6.0, 'P': 2.0}\",\"('P', 'Sn')\",OTHERS,True\nmvc-13836,\"{'Ta': 1.0, 'F': 5.0}\",\"('F', 'Ta')\",OTHERS,True\nmp-12855,\"{'Cu': 2.0, 'Ge': 1.0, 'Se': 4.0, 'Hg': 1.0}\",\"('Cu', 'Ge', 'Hg', 'Se')\",OTHERS,True\nmp-1186285,\"{'Nd': 6.0, 'Pa': 2.0}\",\"('Nd', 'Pa')\",OTHERS,True\nmp-1077377,\"{'Yb': 2.0, 'Cu': 2.0, 'Pb': 2.0}\",\"('Cu', 'Pb', 'Yb')\",OTHERS,True\nmp-1623,\"{'S': 1.0, 'Er': 1.0}\",\"('Er', 'S')\",OTHERS,True\nmp-1120785,\"{'Na': 16.0, 'V': 16.0, 'F': 56.0}\",\"('F', 'Na', 'V')\",OTHERS,True\nmp-2192,\"{'B': 2.0, 'Pt': 2.0}\",\"('B', 'Pt')\",OTHERS,True\nmp-1213829,\"{'Ce': 8.0, 'Al': 1.0, 'Pd': 24.0}\",\"('Al', 'Ce', 'Pd')\",OTHERS,True\nmp-2371,\"{'Ga': 2.0, 'Te': 5.0}\",\"('Ga', 'Te')\",OTHERS,True\nmp-1199808,\"{'Tl': 4.0, 'Ni': 2.0, 'H': 24.0, 'S': 4.0, 'O': 28.0}\",\"('H', 'Ni', 'O', 'S', 'Tl')\",OTHERS,True\nmp-1208539,\"{'Tb': 4.0, 'Cu': 2.0, 'Ge': 4.0, 'O': 16.0}\",\"('Cu', 'Ge', 'O', 'Tb')\",OTHERS,True\nmp-1207144,\"{'Sm': 4.0, 'Mg': 2.0, 'Pd': 4.0}\",\"('Mg', 'Pd', 'Sm')\",OTHERS,True\nmp-1018055,\"{'Hf': 2.0, 'Ir': 2.0}\",\"('Hf', 'Ir')\",OTHERS,True\nmp-5124,\"{'Mn': 1.0, 'Ni': 2.0, 'Sb': 1.0}\",\"('Mn', 'Ni', 'Sb')\",OTHERS,True\nmp-12834,\"{'Th': 4.0, 'Cu': 24.0}\",\"('Cu', 'Th')\",OTHERS,True\nmp-1076253,\"{'La': 6.0, 'Sm': 2.0, 'V': 5.0, 'Cr': 3.0, 'O': 24.0}\",\"('Cr', 'La', 'O', 'Sm', 'V')\",OTHERS,True\nmp-1222826,\"{'Li': 2.0, 'Zr': 6.0, 'Mn': 1.0, 'Cl': 15.0}\",\"('Cl', 'Li', 'Mn', 'Zr')\",OTHERS,True\nmp-861643,\"{'Ca': 1.0, 'La': 1.0, 'Mg': 2.0}\",\"('Ca', 'La', 'Mg')\",OTHERS,True\nmp-1216480,\"{'V': 3.0, 'Ga': 1.0}\",\"('Ga', 'V')\",OTHERS,True\nmp-753113,\"{'Li': 4.0, 'V': 1.0, 'F': 7.0}\",\"('F', 'Li', 'V')\",OTHERS,True\nmp-693284,\"{'Ca': 12.0, 'Hf': 8.0, 'Fe': 8.0, 'Si': 4.0, 'O': 48.0}\",\"('Ca', 'Fe', 'Hf', 'O', 'Si')\",OTHERS,True\nmp-1184775,\"{'Fe': 2.0, 'Sn': 6.0}\",\"('Fe', 'Sn')\",OTHERS,True\nmp-22993,\"{'O': 4.0, 'Cl': 1.0, 'Ag': 1.0}\",\"('Ag', 'Cl', 'O')\",OTHERS,True\nmp-935267,\"{'Li': 16.0, 'U': 4.0, 'C': 12.0, 'O': 44.0}\",\"('C', 'Li', 'O', 'U')\",OTHERS,True\nmp-558945,\"{'Hg': 12.0, 'As': 4.0, 'Br': 4.0, 'O': 16.0}\",\"('As', 'Br', 'Hg', 'O')\",OTHERS,True\nmp-1095315,\"{'Ba': 2.0, 'W': 2.0, 'O': 8.0}\",\"('Ba', 'O', 'W')\",OTHERS,True\nmp-754407,\"{'Li': 2.0, 'Fe': 1.0, 'S': 2.0}\",\"('Fe', 'Li', 'S')\",OTHERS,True\nmp-1111091,\"{'Na': 2.0, 'Nb': 1.0, 'Ag': 1.0, 'F': 6.0}\",\"('Ag', 'F', 'Na', 'Nb')\",OTHERS,True\nmp-1209247,\"{'Rb': 2.0, 'Nd': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Mo', 'Nd', 'O', 'Rb')\",OTHERS,True\nmvc-16806,\"{'Li': 2.0, 'Cr': 4.0, 'O': 8.0}\",\"('Cr', 'Li', 'O')\",OTHERS,True\nmp-754690,\"{'Mn': 6.0, 'O': 5.0, 'F': 7.0}\",\"('F', 'Mn', 'O')\",OTHERS,True\nmp-677269,\"{'Ca': 16.0, 'Zr': 9.0, 'Ta': 7.0, 'N': 7.0, 'O': 41.0}\",\"('Ca', 'N', 'O', 'Ta', 'Zr')\",OTHERS,True\nmvc-3735,\"{'Ca': 4.0, 'Mo': 4.0, 'F': 20.0}\",\"('Ca', 'F', 'Mo')\",OTHERS,True\nmp-1245817,\"{'Li': 1.0, 'Fe': 1.0, 'N': 1.0}\",\"('Fe', 'Li', 'N')\",OTHERS,True\nmp-973732,\"{'Li': 1.0, 'Ho': 3.0}\",\"('Ho', 'Li')\",OTHERS,True\nmp-1213158,\"{'Er': 10.0, 'Si': 4.0, 'Sb': 4.0}\",\"('Er', 'Sb', 'Si')\",OTHERS,True\nmp-1019105,\"{'K': 2.0, 'Mg': 2.0, 'Bi': 2.0}\",\"('Bi', 'K', 'Mg')\",OTHERS,True\nmp-1111507,\"{'Eu': 1.0, 'Na': 2.0, 'Cu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cu', 'Eu', 'Na')\",OTHERS,True\nmp-754411,\"{'Ta': 4.0, 'Fe': 4.0, 'O': 16.0}\",\"('Fe', 'O', 'Ta')\",OTHERS,True\nmp-1216534,\"{'U': 2.0, 'Se': 1.0, 'S': 1.0}\",\"('S', 'Se', 'U')\",OTHERS,True\nmp-1246058,\"{'Ca': 8.0, 'Re': 2.0, 'N': 8.0}\",\"('Ca', 'N', 'Re')\",OTHERS,True\nmp-1191181,\"{'Ho': 2.0, 'Fe': 12.0, 'P': 7.0}\",\"('Fe', 'Ho', 'P')\",OTHERS,True\nmp-778008,\"{'Mn': 14.0, 'P': 16.0, 'O': 56.0}\",\"('Mn', 'O', 'P')\",OTHERS,True\nmp-567626,\"{'Mg': 2.0, 'Zn': 4.0}\",\"('Mg', 'Zn')\",OTHERS,True\nmp-11506,\"{'Ni': 6.0, 'Mo': 2.0}\",\"('Mo', 'Ni')\",OTHERS,True\nmp-567618,\"{'Si': 20.0, 'Pt': 48.0}\",\"('Pt', 'Si')\",OTHERS,True\nmp-685281,\"{'Ti': 1.0, 'Zn': 1.0, 'H': 12.0, 'O': 6.0, 'F': 6.0}\",\"('F', 'H', 'O', 'Ti', 'Zn')\",OTHERS,True\nmp-25082,\"{'Mo': 4.0, 'C': 24.0, 'O': 24.0}\",\"('C', 'Mo', 'O')\",OTHERS,True\nmp-1219434,\"{'Sc': 4.0, 'Fe': 6.0, 'Ru': 2.0}\",\"('Fe', 'Ru', 'Sc')\",OTHERS,True\nmp-772176,\"{'Li': 6.0, 'Nb': 14.0, 'O': 38.0}\",\"('Li', 'Nb', 'O')\",OTHERS,True\nmp-3952,\"{'O': 16.0, 'Y': 8.0, 'Ba': 4.0}\",\"('Ba', 'O', 'Y')\",OTHERS,True\nmp-24853,\"{'O': 5.0, 'Co': 2.0, 'Ba': 1.0, 'Nd': 1.0}\",\"('Ba', 'Co', 'Nd', 'O')\",OTHERS,True\nmp-1219863,\"{'Pr': 6.0, 'Mn': 1.0, 'Si': 2.0, 'S': 14.0}\",\"('Mn', 'Pr', 'S', 'Si')\",OTHERS,True\nmp-989189,\"{'Sb': 2.0, 'Br': 2.0, 'O': 2.0}\",\"('Br', 'O', 'Sb')\",OTHERS,True\nmp-780881,\"{'Li': 4.0, 'Mn': 3.0, 'Cr': 3.0, 'O': 12.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1176929,\"{'Li': 12.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nCd 6 Nd 1,\"{'Cd': 6.0, 'Nd': 1.0}\",\"('Cd', 'Nd')\",AC,True\nZn 75 Sc 15 Pt 10,\"{'Zn': 75.0, 'Sc': 15.0, 'Pt': 10.0}\",\"('Pt', 'Sc', 'Zn')\",QC,True\nmp-541721,\"{'Ba': 6.0, 'Er': 2.0, 'Ru': 4.0, 'O': 18.0}\",\"('Ba', 'Er', 'O', 'Ru')\",OTHERS,True\nmp-1208035,\"{'U': 10.0, 'V': 2.0, 'Sb': 6.0}\",\"('Sb', 'U', 'V')\",OTHERS,True\nmp-1147716,\"{'Cs': 2.0, 'Mo': 2.0, 'C': 12.0}\",\"('C', 'Cs', 'Mo')\",OTHERS,True\nmp-1226784,\"{'Ce': 2.0, 'Mn': 1.0, 'Se': 2.0, 'O': 2.0}\",\"('Ce', 'Mn', 'O', 'Se')\",OTHERS,True\nmp-865600,\"{'Y': 2.0, 'Ir': 1.0, 'Pd': 1.0}\",\"('Ir', 'Pd', 'Y')\",OTHERS,True\nmp-761910,\"{'Li': 6.0, 'Cu': 4.0, 'F': 16.0}\",\"('Cu', 'F', 'Li')\",OTHERS,True\nmp-758217,\"{'Li': 6.0, 'V': 4.0, 'H': 8.0, 'O': 4.0, 'F': 20.0}\",\"('F', 'H', 'Li', 'O', 'V')\",OTHERS,True\nmp-773576,\"{'Li': 1.0, 'Zn': 2.0, 'Fe': 9.0, 'O': 16.0}\",\"('Fe', 'Li', 'O', 'Zn')\",OTHERS,True\nmp-1228885,\"{'Ba': 2.0, 'V': 2.0, 'Cu': 1.0, 'F': 12.0}\",\"('Ba', 'Cu', 'F', 'V')\",OTHERS,True\nmp-624486,\"{'K': 12.0, 'Sn': 6.0, 'Ge': 18.0, 'O': 54.0}\",\"('Ge', 'K', 'O', 'Sn')\",OTHERS,True\nmp-29849,\"{'P': 14.0, 'Ag': 6.0, 'Sn': 2.0}\",\"('Ag', 'P', 'Sn')\",OTHERS,True\nmvc-10776,\"{'Ca': 4.0, 'Ti': 8.0, 'Be': 12.0, 'Si': 12.0, 'O': 48.0}\",\"('Be', 'Ca', 'O', 'Si', 'Ti')\",OTHERS,True\nmp-1179365,\"{'Sr': 2.0, 'H': 32.0, 'O': 20.0}\",\"('H', 'O', 'Sr')\",OTHERS,True\nmp-14623,\"{'K': 10.0, 'Cu': 2.0, 'As': 4.0}\",\"('As', 'Cu', 'K')\",OTHERS,True\nmp-1174776,\"{'Li': 8.0, 'Mn': 2.0, 'Co': 4.0, 'O': 14.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-778479,\"{'Mn': 12.0, 'O': 5.0, 'F': 19.0}\",\"('F', 'Mn', 'O')\",OTHERS,True\nmp-1073705,\"{'Mg': 2.0, 'Si': 2.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-558335,\"{'Na': 8.0, 'Pd': 4.0, 'N': 16.0, 'O': 32.0}\",\"('N', 'Na', 'O', 'Pd')\",OTHERS,True\nmp-1219132,\"{'Re': 4.0, 'Mo': 2.0, 'Se': 8.0}\",\"('Mo', 'Re', 'Se')\",OTHERS,True\nmp-1227371,\"{'Ba': 1.0, 'Sr': 1.0, 'La': 1.0, 'Bi': 1.0, 'O': 6.0}\",\"('Ba', 'Bi', 'La', 'O', 'Sr')\",OTHERS,True\nmvc-5445,\"{'Ca': 4.0, 'Y': 2.0, 'Bi': 2.0, 'O': 10.0}\",\"('Bi', 'Ca', 'O', 'Y')\",OTHERS,True\nmp-763192,\"{'V': 6.0, 'O': 3.0, 'F': 15.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmp-695,\"{'Ti': 2.0, 'Co': 4.0}\",\"('Co', 'Ti')\",OTHERS,True\nmp-1208695,\"{'Ta': 9.0, 'V': 2.0, 'O': 25.0}\",\"('O', 'Ta', 'V')\",OTHERS,True\nmp-1175910,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-31116,\"{'La': 4.0, 'Sc': 4.0, 'O': 12.0}\",\"('La', 'O', 'Sc')\",OTHERS,True\nmp-1178537,\"{'Co': 6.0, 'C': 6.0, 'O': 21.0}\",\"('C', 'Co', 'O')\",OTHERS,True\nmp-1175280,\"{'Li': 7.0, 'Mn': 4.0, 'Co': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1834,\"{'Nd': 1.0, 'Al': 4.0}\",\"('Al', 'Nd')\",OTHERS,True\nmp-1095291,\"{'Li': 4.0, 'Sn': 2.0, 'Se': 6.0}\",\"('Li', 'Se', 'Sn')\",OTHERS,True\nmp-1208409,\"{'Ta': 6.0, 'Co': 2.0, 'S': 12.0}\",\"('Co', 'S', 'Ta')\",OTHERS,True\nmp-768597,\"{'Sr': 4.0, 'La': 4.0, 'Cl': 20.0}\",\"('Cl', 'La', 'Sr')\",OTHERS,True\nmp-867338,\"{'Ac': 1.0, 'Cd': 1.0, 'Ag': 2.0}\",\"('Ac', 'Ag', 'Cd')\",OTHERS,True\nmp-1190707,\"{'Tm': 2.0, 'Fe': 12.0, 'P': 7.0}\",\"('Fe', 'P', 'Tm')\",OTHERS,True\nmp-1113366,\"{'Cs': 1.0, 'Rb': 2.0, 'Pd': 1.0, 'F': 6.0}\",\"('Cs', 'F', 'Pd', 'Rb')\",OTHERS,True\nmp-849468,\"{'Li': 4.0, 'Fe': 3.0, 'Co': 3.0, 'Te': 2.0, 'O': 16.0}\",\"('Co', 'Fe', 'Li', 'O', 'Te')\",OTHERS,True\nmp-754020,\"{'Li': 2.0, 'Co': 2.0, 'Cu': 2.0, 'O': 8.0}\",\"('Co', 'Cu', 'Li', 'O')\",OTHERS,True\nmp-1218284,\"{'Sr': 2.0, 'Dy': 2.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Dy', 'O', 'Sr')\",OTHERS,True\nmp-1221971,\"{'Mg': 1.0, 'Zn': 3.0, 'S': 4.0}\",\"('Mg', 'S', 'Zn')\",OTHERS,True\nmp-1114421,\"{'Rb': 2.0, 'Li': 1.0, 'Lu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Li', 'Lu', 'Rb')\",OTHERS,True\nmp-9765,\"{'O': 14.0, 'Nd': 4.0, 'Pt': 4.0}\",\"('Nd', 'O', 'Pt')\",OTHERS,True\nZn 40 Mg 39.5 Ga 16.4 Al 4.1,\"{'Zn': 40.0, 'Mg': 39.5, 'Ga': 16.4, 'Al': 4.1}\",\"('Al', 'Ga', 'Mg', 'Zn')\",AC,True\nmp-1074405,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-720104,\"{'Na': 8.0, 'Al': 6.0, 'Ge': 6.0, 'N': 2.0, 'O': 28.0}\",\"('Al', 'Ge', 'N', 'Na', 'O')\",OTHERS,True\nmp-1185546,\"{'Cs': 1.0, 'Rb': 2.0, 'Bi': 1.0}\",\"('Bi', 'Cs', 'Rb')\",OTHERS,True\nmp-1181383,\"{'K': 2.0, 'Co': 1.0, 'B': 12.0, 'O': 30.0}\",\"('B', 'Co', 'K', 'O')\",OTHERS,True\nmp-766168,\"{'Ti': 8.0, 'Sn': 2.0, 'O': 20.0}\",\"('O', 'Sn', 'Ti')\",OTHERS,True\nmp-1078736,\"{'Pr': 2.0, 'Ni': 4.0, 'Sb': 4.0}\",\"('Ni', 'Pr', 'Sb')\",OTHERS,True\nmp-1195793,\"{'Ba': 4.0, 'Fe': 4.0, 'P': 4.0, 'H': 4.0, 'O': 20.0}\",\"('Ba', 'Fe', 'H', 'O', 'P')\",OTHERS,True\nmp-542824,\"{'Ce': 3.0, 'Ag': 4.0, 'Sn': 4.0}\",\"('Ag', 'Ce', 'Sn')\",OTHERS,True\nZn 37 Mg 46 Al 17,\"{'Zn': 37.0, 'Mg': 46.0, 'Al': 17.0}\",\"('Al', 'Mg', 'Zn')\",AC,True\nmp-683793,\"{'Fe': 16.0, 'Te': 8.0, 'Mo': 4.0, 'C': 56.0, 'S': 8.0, 'O': 56.0}\",\"('C', 'Fe', 'Mo', 'O', 'S', 'Te')\",OTHERS,True\nmp-1187005,\"{'Si': 2.0, 'Ag': 6.0}\",\"('Ag', 'Si')\",OTHERS,True\nmp-1096299,\"{'Li': 2.0, 'Hg': 1.0, 'Sb': 1.0}\",\"('Hg', 'Li', 'Sb')\",OTHERS,True\nmp-1207770,\"{'Y': 10.0, 'Bi': 2.0, 'Pt': 4.0}\",\"('Bi', 'Pt', 'Y')\",OTHERS,True\nmp-778385,\"{'B': 24.0, 'H': 24.0, 'Se': 8.0, 'O': 72.0}\",\"('B', 'H', 'O', 'Se')\",OTHERS,True\nmp-979286,{'Xe': 1.0},\"('Xe',)\",OTHERS,True\nmp-1228771,\"{'Ba': 2.0, 'Fe': 10.0, 'Bi': 8.0, 'O': 30.0}\",\"('Ba', 'Bi', 'Fe', 'O')\",OTHERS,True\nmp-541879,\"{'Rb': 8.0, 'Ge': 8.0, 'S': 20.0}\",\"('Ge', 'Rb', 'S')\",OTHERS,True\nmp-1187731,\"{'Y': 2.0, 'Zn': 1.0, 'Hg': 1.0}\",\"('Hg', 'Y', 'Zn')\",OTHERS,True\nmp-1206803,\"{'Y': 2.0, 'C': 1.0, 'I': 2.0}\",\"('C', 'I', 'Y')\",OTHERS,True\nmp-1190708,\"{'Al': 12.0, 'Fe': 8.0, 'Si': 4.0}\",\"('Al', 'Fe', 'Si')\",OTHERS,True\nmp-1219347,\"{'Si': 1.0, 'Pb': 7.0, 'Cl': 2.0, 'O': 8.0}\",\"('Cl', 'O', 'Pb', 'Si')\",OTHERS,True\nmp-1246452,\"{'B': 24.0, 'C': 24.0, 'N': 56.0}\",\"('B', 'C', 'N')\",OTHERS,True\nmvc-11253,\"{'Ca': 2.0, 'Cr': 4.0, 'S': 8.0}\",\"('Ca', 'Cr', 'S')\",OTHERS,True\nmp-1093630,\"{'Li': 1.0, 'Ge': 2.0, 'Rh': 1.0}\",\"('Ge', 'Li', 'Rh')\",OTHERS,True\nmp-735556,\"{'Na': 4.0, 'Co': 2.0, 'H': 16.0, 'C': 4.0, 'O': 20.0}\",\"('C', 'Co', 'H', 'Na', 'O')\",OTHERS,True\nmp-1224984,\"{'Fe': 2.0, 'Co': 2.0, 'B': 2.0}\",\"('B', 'Co', 'Fe')\",OTHERS,True\nZn 17 Sc 3,\"{'Zn': 17.0, 'Sc': 3.0}\",\"('Sc', 'Zn')\",AC,True\nmp-1219453,\"{'Sr': 12.0, 'Ti': 4.0, 'Si': 16.0, 'O': 61.0}\",\"('O', 'Si', 'Sr', 'Ti')\",OTHERS,True\nmp-27989,\"{'C': 2.0, 'N': 2.0, 'Br': 2.0}\",\"('Br', 'C', 'N')\",OTHERS,True\nmp-1209723,\"{'Np': 2.0, 'Tl': 4.0, 'F': 12.0}\",\"('F', 'Np', 'Tl')\",OTHERS,True\nmp-30704,\"{'Ga': 6.0, 'Nb': 10.0}\",\"('Ga', 'Nb')\",OTHERS,True\nmp-1095964,\"{'Zn': 2.0, 'Ag': 1.0, 'Pd': 1.0}\",\"('Ag', 'Pd', 'Zn')\",OTHERS,True\nmp-554291,\"{'Cu': 8.0, 'Sb': 16.0, 'Cl': 8.0, 'O': 24.0}\",\"('Cl', 'Cu', 'O', 'Sb')\",OTHERS,True\nmp-1185389,\"{'Li': 1.0, 'Nd': 2.0, 'Rh': 1.0}\",\"('Li', 'Nd', 'Rh')\",OTHERS,True\nmp-1221814,\"{'Mn': 1.0, 'Fe': 5.0, 'O': 8.0}\",\"('Fe', 'Mn', 'O')\",OTHERS,True\nmp-1228492,\"{'Ca': 8.0, 'Fe': 16.0, 'Cu': 8.0, 'O': 40.0}\",\"('Ca', 'Cu', 'Fe', 'O')\",OTHERS,True\nmp-849273,\"{'Li': 4.0, 'Co': 4.0, 'O': 8.0}\",\"('Co', 'Li', 'O')\",OTHERS,True\nmp-19838,\"{'Si': 2.0, 'Cr': 2.0, 'Pu': 1.0}\",\"('Cr', 'Pu', 'Si')\",OTHERS,True\nmvc-12951,\"{'Mn': 4.0, 'Zn': 1.0, 'S': 8.0}\",\"('Mn', 'S', 'Zn')\",OTHERS,True\nmp-1177254,\"{'Li': 4.0, 'V': 2.0, 'Co': 3.0, 'Cu': 3.0, 'O': 16.0}\",\"('Co', 'Cu', 'Li', 'O', 'V')\",OTHERS,True\nmp-26241,\"{'Li': 4.0, 'O': 28.0, 'P': 8.0, 'V': 6.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmvc-8408,\"{'V': 4.0, 'Zn': 4.0, 'Ge': 8.0, 'O': 24.0}\",\"('Ge', 'O', 'V', 'Zn')\",OTHERS,True\nmp-582024,\"{'Cs': 12.0, 'Cu': 8.0, 'Cl': 20.0}\",\"('Cl', 'Cs', 'Cu')\",OTHERS,True\nmp-709066,\"{'Rb': 16.0, 'Li': 4.0, 'H': 12.0, 'S': 16.0, 'O': 64.0}\",\"('H', 'Li', 'O', 'Rb', 'S')\",OTHERS,True\nmp-972032,\"{'Tl': 2.0, 'I': 6.0, 'O': 18.0}\",\"('I', 'O', 'Tl')\",OTHERS,True\nmp-997032,\"{'Mg': 2.0, 'Au': 2.0, 'O': 4.0}\",\"('Au', 'Mg', 'O')\",OTHERS,True\nmp-1225357,\"{'Dy': 1.0, 'Al': 7.0, 'Fe': 5.0}\",\"('Al', 'Dy', 'Fe')\",OTHERS,True\nmp-1014212,{'Si': 1.0},\"('Si',)\",OTHERS,True\nmp-962057,\"{'Sr': 1.0, 'Ca': 1.0, 'Si': 1.0}\",\"('Ca', 'Si', 'Sr')\",OTHERS,True\nmp-1219143,\"{'Sm': 6.0, 'Mn': 1.0, 'Si': 2.0, 'S': 14.0}\",\"('Mn', 'S', 'Si', 'Sm')\",OTHERS,True\nmp-1186417,\"{'Pa': 1.0, 'Te': 2.0, 'Pd': 1.0}\",\"('Pa', 'Pd', 'Te')\",OTHERS,True\nmp-769720,\"{'La': 4.0, 'Ti': 6.0, 'O': 18.0}\",\"('La', 'O', 'Ti')\",OTHERS,True\nmp-757305,\"{'Li': 8.0, 'Ti': 4.0, 'P': 12.0, 'O': 40.0}\",\"('Li', 'O', 'P', 'Ti')\",OTHERS,True\nmp-684096,\"{'Bi': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Bi', 'O', 'P')\",OTHERS,True\nmp-19245,\"{'O': 6.0, 'Mn': 2.0, 'Ba': 1.0, 'La': 1.0}\",\"('Ba', 'La', 'Mn', 'O')\",OTHERS,True\nmp-767791,\"{'Mg': 5.0, 'Co': 19.0, 'O': 32.0}\",\"('Co', 'Mg', 'O')\",OTHERS,True\nmp-650178,\"{'Se': 40.0, 'S': 8.0, 'O': 24.0, 'F': 8.0}\",\"('F', 'O', 'S', 'Se')\",OTHERS,True\nmp-1212099,\"{'K': 4.0, 'La': 2.0, 'Ta': 12.0, 'Br': 30.0, 'O': 6.0}\",\"('Br', 'K', 'La', 'O', 'Ta')\",OTHERS,True\nmp-771326,\"{'Nb': 1.0, 'Fe': 5.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Nb', 'O', 'P')\",OTHERS,True\nmp-1186187,\"{'Na': 1.0, 'Tl': 2.0, 'Sn': 1.0}\",\"('Na', 'Sn', 'Tl')\",OTHERS,True\nmp-13396,\"{'Li': 1.0, 'Rh': 1.0, 'In': 2.0}\",\"('In', 'Li', 'Rh')\",OTHERS,True\nmp-756829,\"{'Li': 4.0, 'Fe': 3.0, 'Co': 1.0, 'O': 8.0}\",\"('Co', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-11469,\"{'Pr': 1.0, 'Hg': 1.0}\",\"('Hg', 'Pr')\",OTHERS,True\nmp-861878,\"{'Cd': 2.0, 'Ag': 1.0, 'Rh': 1.0}\",\"('Ag', 'Cd', 'Rh')\",OTHERS,True\nmp-12879,\"{'Si': 10.0, 'Rh': 6.0, 'Tb': 4.0}\",\"('Rh', 'Si', 'Tb')\",OTHERS,True\nmp-530546,\"{'O': 108.0, 'Si': 54.0}\",\"('O', 'Si')\",OTHERS,True\nmp-1184988,\"{'Li': 2.0, 'Sm': 1.0, 'Al': 1.0}\",\"('Al', 'Li', 'Sm')\",OTHERS,True\nmp-569496,\"{'Ce': 1.0, 'Si': 2.0, 'Au': 4.0}\",\"('Au', 'Ce', 'Si')\",OTHERS,True\nmp-18279,\"{'Cu': 2.0, 'Ge': 8.0, 'Zr': 4.0}\",\"('Cu', 'Ge', 'Zr')\",OTHERS,True\nmp-1200277,\"{'Cs': 4.0, 'Mg': 2.0, 'Se': 4.0, 'O': 28.0}\",\"('Cs', 'Mg', 'O', 'Se')\",OTHERS,True\nmp-20826,\"{'Cu': 2.0, 'Te': 2.0}\",\"('Cu', 'Te')\",OTHERS,True\nmp-20063,\"{'Li': 3.0, 'Ge': 4.0, 'Ce': 5.0}\",\"('Ce', 'Ge', 'Li')\",OTHERS,True\nmp-755697,\"{'V': 8.0, 'O': 12.0, 'F': 4.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmp-540050,\"{'Fe': 12.0, 'P': 12.0, 'O': 44.0}\",\"('Fe', 'O', 'P')\",OTHERS,True\nmvc-13015,\"{'Cu': 3.0, 'Sn': 4.0, 'O': 12.0}\",\"('Cu', 'O', 'Sn')\",OTHERS,True\nmp-1220425,\"{'Nb': 6.0, 'Bi': 1.0, 'Se': 8.0}\",\"('Bi', 'Nb', 'Se')\",OTHERS,True\nmp-1219917,\"{'Pd': 1.0, 'Rh': 1.0, 'Pb': 4.0}\",\"('Pb', 'Pd', 'Rh')\",OTHERS,True\nmp-1071078,\"{'Ni': 2.0, 'Se': 4.0}\",\"('Ni', 'Se')\",OTHERS,True\nmp-1114690,\"{'Rb': 3.0, 'Ir': 1.0, 'F': 6.0}\",\"('F', 'Ir', 'Rb')\",OTHERS,True\nmp-677308,\"{'Na': 2.0, 'Pr': 4.0, 'Cl': 12.0}\",\"('Cl', 'Na', 'Pr')\",OTHERS,True\nmp-1213319,\"{'Cs': 2.0, 'Pr': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Cs', 'O', 'Pr', 'W')\",OTHERS,True\nmvc-6921,\"{'Mg': 4.0, 'Mn': 8.0, 'O': 16.0}\",\"('Mg', 'Mn', 'O')\",OTHERS,True\nmp-1213830,\"{'Ce': 6.0, 'W': 2.0, 'Cl': 6.0, 'O': 12.0}\",\"('Ce', 'Cl', 'O', 'W')\",OTHERS,True\nmp-758538,\"{'Li': 8.0, 'V': 14.0, 'O': 24.0}\",\"('Li', 'O', 'V')\",OTHERS,True\nmp-1095082,\"{'In': 2.0, 'Ru': 6.0}\",\"('In', 'Ru')\",OTHERS,True\nmp-1220828,\"{'Nb': 16.0, 'Pb': 12.0, 'O': 48.0, 'F': 8.0}\",\"('F', 'Nb', 'O', 'Pb')\",OTHERS,True\nmp-1206296,\"{'Y': 4.0, 'Co': 2.0, 'Si': 4.0}\",\"('Co', 'Si', 'Y')\",OTHERS,True\nAg 42 In 42 Ca 16,\"{'Ag': 42.0, 'In': 42.0, 'Ca': 16.0}\",\"('Ag', 'Ca', 'In')\",QC,True\nmp-1210619,\"{'Na': 24.0, 'Nd': 8.0, 'P': 16.0, 'O': 64.0}\",\"('Na', 'Nd', 'O', 'P')\",OTHERS,True\nmp-768497,\"{'Li': 6.0, 'Mn': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,True\nmp-697962,\"{'Eu': 6.0, 'Mg': 7.0, 'H': 26.0}\",\"('Eu', 'H', 'Mg')\",OTHERS,True\nmp-744703,\"{'Mn': 4.0, 'Cu': 4.0, 'H': 40.0, 'Se': 8.0, 'Cl': 8.0, 'O': 40.0}\",\"('Cl', 'Cu', 'H', 'Mn', 'O', 'Se')\",OTHERS,True\nmp-1016846,\"{'Ti': 1.0, 'Cd': 1.0, 'O': 3.0}\",\"('Cd', 'O', 'Ti')\",OTHERS,True\nmp-773192,\"{'Gd': 4.0, 'W': 6.0, 'O': 24.0}\",\"('Gd', 'O', 'W')\",OTHERS,True\nmp-30042,\"{'Li': 4.0, 'Ge': 2.0, 'Ce': 2.0}\",\"('Ce', 'Ge', 'Li')\",OTHERS,True\nmp-1246423,\"{'B': 4.0, 'Mo': 4.0, 'N': 12.0}\",\"('B', 'Mo', 'N')\",OTHERS,True\nmp-753148,\"{'Li': 2.0, 'Cu': 7.0, 'F': 16.0}\",\"('Cu', 'F', 'Li')\",OTHERS,True\nmp-1183854,\"{'Ce': 1.0, 'Pm': 3.0}\",\"('Ce', 'Pm')\",OTHERS,True\nmp-1196825,\"{'Zr': 4.0, 'H': 48.0, 'N': 20.0, 'F': 16.0}\",\"('F', 'H', 'N', 'Zr')\",OTHERS,True\nmp-1105795,\"{'Cd': 4.0, 'N': 4.0, 'F': 12.0}\",\"('Cd', 'F', 'N')\",OTHERS,True\nmp-17252,\"{'Cu': 6.0, 'Ge': 3.0, 'Se': 12.0, 'Ba': 3.0}\",\"('Ba', 'Cu', 'Ge', 'Se')\",OTHERS,True\nmp-1176130,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-655580,\"{'Ce': 4.0, 'Cu': 16.0, 'Sn': 4.0}\",\"('Ce', 'Cu', 'Sn')\",OTHERS,True\nmp-1100342,\"{'Ca': 2.0, 'Sn': 3.0, 'S': 8.0}\",\"('Ca', 'S', 'Sn')\",OTHERS,True\nmp-22037,\"{'O': 8.0, 'Cu': 6.0, 'Pb': 1.0}\",\"('Cu', 'O', 'Pb')\",OTHERS,True\nmp-635393,\"{'Ca': 2.0, 'P': 1.0, 'I': 1.0}\",\"('Ca', 'I', 'P')\",OTHERS,True\nmp-567365,{'Kr': 2.0},\"('Kr',)\",OTHERS,True\nmp-1229330,\"{'Bi': 1.0, 'W': 18.0, 'O': 60.0}\",\"('Bi', 'O', 'W')\",OTHERS,True\nmp-17146,\"{'S': 20.0, 'K': 8.0}\",\"('K', 'S')\",OTHERS,True\nmp-1071448,\"{'Ce': 2.0, 'Ga': 2.0, 'Co': 2.0}\",\"('Ce', 'Co', 'Ga')\",OTHERS,True\nmp-1209227,\"{'Rb': 1.0, 'Ca': 1.0, 'Br': 3.0}\",\"('Br', 'Ca', 'Rb')\",OTHERS,True\nmvc-8943,\"{'Zn': 4.0, 'Bi': 12.0, 'O': 28.0}\",\"('Bi', 'O', 'Zn')\",OTHERS,True\nmp-1185748,\"{'Mg': 4.0, 'Ag': 2.0}\",\"('Ag', 'Mg')\",OTHERS,True\nmp-3960,\"{'O': 4.0, 'Ca': 1.0, 'U': 1.0}\",\"('Ca', 'O', 'U')\",OTHERS,True\nmp-1112199,\"{'K': 2.0, 'In': 1.0, 'Hg': 1.0, 'F': 6.0}\",\"('F', 'Hg', 'In', 'K')\",OTHERS,True\nmp-1246024,\"{'Sr': 28.0, 'Hf': 4.0, 'N': 24.0}\",\"('Hf', 'N', 'Sr')\",OTHERS,True\nAu 61.2 Sn 24.5 Eu 14.3,\"{'Au': 61.2, 'Sn': 24.5, 'Eu': 14.3}\",\"('Au', 'Eu', 'Sn')\",AC,True\nmvc-13995,\"{'Y': 2.0, 'Ti': 2.0, 'O': 6.0}\",\"('O', 'Ti', 'Y')\",OTHERS,True\nmp-1222406,\"{'Li': 1.0, 'Zr': 2.0, 'Pb': 1.0}\",\"('Li', 'Pb', 'Zr')\",OTHERS,True\nmp-1106139,\"{'In': 8.0, 'Bi': 6.0, 'Pb': 2.0}\",\"('Bi', 'In', 'Pb')\",OTHERS,True\nmp-1214547,\"{'Ba': 4.0, 'Mn': 4.0, 'V': 4.0, 'F': 28.0}\",\"('Ba', 'F', 'Mn', 'V')\",OTHERS,True\nmp-1208575,\"{'Tb': 2.0, 'Cl': 6.0, 'O': 24.0}\",\"('Cl', 'O', 'Tb')\",OTHERS,True\nmp-561973,\"{'K': 4.0, 'Te': 8.0, 'O': 24.0}\",\"('K', 'O', 'Te')\",OTHERS,True\nmp-1218693,\"{'Sr': 4.0, 'V': 6.0, 'Bi': 6.0, 'O': 28.0}\",\"('Bi', 'O', 'Sr', 'V')\",OTHERS,True\nmp-1207120,\"{'Ba': 2.0, 'Li': 1.0, 'I': 1.0, 'O': 6.0}\",\"('Ba', 'I', 'Li', 'O')\",OTHERS,True\nmp-1186295,\"{'Nd': 1.0, 'Cd': 1.0, 'Ag': 2.0}\",\"('Ag', 'Cd', 'Nd')\",OTHERS,True\nmp-2360,\"{'Ca': 2.0, 'Ge': 2.0}\",\"('Ca', 'Ge')\",OTHERS,True\nmvc-13461,\"{'Cr': 2.0, 'N': 4.0}\",\"('Cr', 'N')\",OTHERS,True\nmp-30893,\"{'Sr': 8.0, 'Bi': 6.0}\",\"('Bi', 'Sr')\",OTHERS,True\nmp-1102441,\"{'Re': 4.0, 'N': 8.0}\",\"('N', 'Re')\",OTHERS,True\nmp-1252764,\"{'Al': 2.0, 'F': 6.0}\",\"('Al', 'F')\",OTHERS,True\nmp-1020616,\"{'Rb': 12.0, 'Mg': 12.0, 'P': 12.0, 'O': 48.0}\",\"('Mg', 'O', 'P', 'Rb')\",OTHERS,True\nmp-1214060,\"{'Ca': 2.0, 'Mg': 10.0, 'P': 6.0, 'H': 2.0, 'C': 2.0, 'O': 32.0}\",\"('C', 'Ca', 'H', 'Mg', 'O', 'P')\",OTHERS,True\nmp-765485,\"{'Zr': 15.0, 'V': 1.0, 'O': 32.0}\",\"('O', 'V', 'Zr')\",OTHERS,True\nmp-1214042,\"{'Ca': 6.0, 'Ge': 8.0, 'Au': 14.0}\",\"('Au', 'Ca', 'Ge')\",OTHERS,True\nmp-9018,\"{'Li': 4.0, 'O': 16.0, 'P': 4.0, 'Cd': 4.0}\",\"('Cd', 'Li', 'O', 'P')\",OTHERS,True\nmp-1096047,\"{'Sc': 1.0, 'Cu': 1.0, 'Au': 2.0}\",\"('Au', 'Cu', 'Sc')\",OTHERS,True\nmp-29704,\"{'O': 32.0, 'S': 16.0, 'Cs': 8.0}\",\"('Cs', 'O', 'S')\",OTHERS,True\nmp-1029118,\"{'Te': 2.0, 'Mo': 1.0, 'W': 3.0, 'S': 6.0}\",\"('Mo', 'S', 'Te', 'W')\",OTHERS,True\nmp-1228478,\"{'Ba': 12.0, 'Ti': 9.0, 'Pt': 3.0, 'O': 36.0}\",\"('Ba', 'O', 'Pt', 'Ti')\",OTHERS,True\nmvc-928,\"{'Ba': 1.0, 'Ca': 1.0, 'V': 4.0, 'O': 8.0}\",\"('Ba', 'Ca', 'O', 'V')\",OTHERS,True\nmp-766488,\"{'Li': 6.0, 'Mn': 6.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-626315,\"{'Sr': 2.0, 'H': 32.0, 'O': 20.0}\",\"('H', 'O', 'Sr')\",OTHERS,True\nmp-758372,\"{'Li': 4.0, 'Co': 2.0, 'Si': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'O', 'Si')\",OTHERS,True\nmp-554335,\"{'K': 4.0, 'Cu': 2.0, 'H': 24.0, 'Se': 4.0, 'O': 28.0}\",\"('Cu', 'H', 'K', 'O', 'Se')\",OTHERS,True\nmp-1094512,\"{'Mg': 8.0, 'Sb': 4.0}\",\"('Mg', 'Sb')\",OTHERS,True\nmp-1014226,\"{'Zr': 6.0, 'Zn': 2.0, 'N': 2.0}\",\"('N', 'Zn', 'Zr')\",OTHERS,True\nmp-850798,\"{'Li': 8.0, 'Mn': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Li', 'Mn', 'O', 'Si')\",OTHERS,True\nmp-867571,\"{'Li': 8.0, 'Mn': 8.0, 'P': 8.0, 'O': 36.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,True\nmp-540011,\"{'Li': 4.0, 'Ni': 2.0, 'P': 10.0, 'O': 30.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,True\nmp-534870,\"{'B': 2.0, 'Ga': 6.0, 'H': 8.0, 'Na': 8.0, 'O': 24.0, 'Si': 6.0}\",\"('B', 'Ga', 'H', 'Na', 'O', 'Si')\",OTHERS,True\nmp-1104102,\"{'Yb': 2.0, 'Ni': 8.0, 'As': 4.0}\",\"('As', 'Ni', 'Yb')\",OTHERS,True\nmp-745163,\"{'Mn': 2.0, 'Cu': 5.0, 'P': 4.0, 'H': 2.0, 'O': 18.0}\",\"('Cu', 'H', 'Mn', 'O', 'P')\",OTHERS,True\nmp-1226098,\"{'Co': 1.0, 'Ni': 1.0, 'P': 2.0, 'S': 6.0}\",\"('Co', 'Ni', 'P', 'S')\",OTHERS,True\nmp-1186958,\"{'Sc': 2.0, 'Cu': 1.0, 'Rh': 1.0}\",\"('Cu', 'Rh', 'Sc')\",OTHERS,True\nmp-758910,\"{'Li': 12.0, 'Fe': 6.0, 'Si': 12.0, 'O': 36.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,True\nmp-1194253,\"{'Hf': 18.0, 'W': 8.0, 'Se': 2.0}\",\"('Hf', 'Se', 'W')\",OTHERS,True\nmvc-2883,\"{'Sb': 10.0, 'Te': 6.0, 'O': 36.0}\",\"('O', 'Sb', 'Te')\",OTHERS,True\nmp-1226198,\"{'Co': 8.0, 'Cu': 6.0, 'Ni': 4.0, 'Se': 24.0}\",\"('Co', 'Cu', 'Ni', 'Se')\",OTHERS,True\nmp-22649,\"{'O': 12.0, 'V': 4.0, 'Cd': 4.0}\",\"('Cd', 'O', 'V')\",OTHERS,True\nmp-1077741,\"{'Yb': 1.0, 'Cu': 4.0, 'Ag': 1.0}\",\"('Ag', 'Cu', 'Yb')\",OTHERS,True\nmp-765189,\"{'Li': 3.0, 'V': 3.0, 'O': 5.0, 'F': 3.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,True\nmp-769096,\"{'Mn': 6.0, 'P': 24.0}\",\"('Mn', 'P')\",OTHERS,True\nmp-637614,\"{'Zn': 3.0, 'In': 2.0, 'S': 6.0}\",\"('In', 'S', 'Zn')\",OTHERS,True\nmp-554275,\"{'Na': 16.0, 'V': 4.0, 'H': 4.0, 'O': 20.0}\",\"('H', 'Na', 'O', 'V')\",OTHERS,True\nmp-766558,\"{'Na': 4.0, 'Mn': 12.0, 'O': 24.0}\",\"('Mn', 'Na', 'O')\",OTHERS,True\nmvc-13560,\"{'Ca': 1.0, 'V': 4.0, 'S': 8.0}\",\"('Ca', 'S', 'V')\",OTHERS,True\nmp-2961,\"{'Mg': 2.0, 'Si': 2.0, 'P': 4.0}\",\"('Mg', 'P', 'Si')\",OTHERS,True\nmp-1195435,\"{'Na': 4.0, 'Er': 4.0, 'B': 4.0, 'Te': 2.0, 'O': 20.0}\",\"('B', 'Er', 'Na', 'O', 'Te')\",OTHERS,True\nmp-974368,\"{'Rh': 3.0, 'Pb': 1.0}\",\"('Pb', 'Rh')\",OTHERS,True\nmp-1189706,\"{'Cd': 4.0, 'Tc': 4.0, 'O': 12.0}\",\"('Cd', 'O', 'Tc')\",OTHERS,True\nmp-1207495,\"{'Zr': 12.0, 'Ge': 2.0, 'I': 28.0}\",\"('Ge', 'I', 'Zr')\",OTHERS,True\nmp-1093645,\"{'Ti': 2.0, 'Al': 1.0, 'W': 1.0}\",\"('Al', 'Ti', 'W')\",OTHERS,True\nmp-560282,\"{'K': 8.0, 'Ba': 4.0, 'N': 16.0, 'O': 32.0}\",\"('Ba', 'K', 'N', 'O')\",OTHERS,True\nmvc-16790,\"{'Y': 2.0, 'Ti': 4.0, 'S': 8.0}\",\"('S', 'Ti', 'Y')\",OTHERS,True\nmp-1205595,\"{'Ba': 2.0, 'Tm': 1.0, 'Mo': 1.0, 'O': 6.0}\",\"('Ba', 'Mo', 'O', 'Tm')\",OTHERS,True\nmp-1079224,\"{'V': 6.0, 'As': 2.0, 'N': 2.0}\",\"('As', 'N', 'V')\",OTHERS,True\nmp-996960,\"{'Ag': 2.0, 'N': 2.0, 'O': 4.0}\",\"('Ag', 'N', 'O')\",OTHERS,True\nmp-1221014,\"{'Nb': 24.0, 'I': 42.0, 'Br': 2.0}\",\"('Br', 'I', 'Nb')\",OTHERS,True\nmp-758248,\"{'Li': 4.0, 'Co': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,True\nmp-16066,\"{'P': 4.0, 'Ni': 8.0, 'Yb': 2.0}\",\"('Ni', 'P', 'Yb')\",OTHERS,True\nmp-1174032,\"{'Li': 5.0, 'Mn': 1.0, 'Co': 2.0, 'O': 8.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1210319,\"{'Nd': 4.0, 'Fe': 4.0, 'Ge': 8.0, 'O': 28.0}\",\"('Fe', 'Ge', 'Nd', 'O')\",OTHERS,True\nmvc-10716,\"{'Sr': 4.0, 'Y': 2.0, 'Ti': 4.0, 'Ga': 2.0, 'O': 14.0}\",\"('Ga', 'O', 'Sr', 'Ti', 'Y')\",OTHERS,True\nmp-23358,\"{'Hg': 10.0, 'Cl': 4.0, 'O': 8.0}\",\"('Cl', 'Hg', 'O')\",OTHERS,True\nmp-772072,\"{'Li': 4.0, 'Fe': 2.0, 'Si': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Fe', 'Li', 'O', 'Si')\",OTHERS,True\nmp-1239271,\"{'Nb': 1.0, 'Cr': 3.0, 'Ag': 2.0, 'S': 8.0}\",\"('Ag', 'Cr', 'Nb', 'S')\",OTHERS,True\nmp-1212105,\"{'Ho': 1.0, 'Al': 3.0, 'B': 4.0, 'O': 12.0}\",\"('Al', 'B', 'Ho', 'O')\",OTHERS,True\nmp-558956,\"{'K': 8.0, 'V': 4.0, 'P': 4.0, 'O': 24.0}\",\"('K', 'O', 'P', 'V')\",OTHERS,True\nmp-650598,\"{'U': 8.0, 'Pb': 24.0, 'O': 48.0}\",\"('O', 'Pb', 'U')\",OTHERS,True\nmp-1218724,\"{'Sr': 6.0, 'La': 2.0, 'V': 6.0, 'O': 24.0}\",\"('La', 'O', 'Sr', 'V')\",OTHERS,True\nmp-989616,\"{'Ca': 2.0, 'W': 2.0, 'N': 6.0}\",\"('Ca', 'N', 'W')\",OTHERS,True\nmp-1198803,\"{'Sc': 20.0, 'Ge': 16.0}\",\"('Ge', 'Sc')\",OTHERS,True\nmp-1111567,\"{'K': 2.0, 'Sc': 1.0, 'Tl': 1.0, 'F': 6.0}\",\"('F', 'K', 'Sc', 'Tl')\",OTHERS,True\nmp-979028,\"{'Sm': 2.0, 'Mg': 1.0}\",\"('Mg', 'Sm')\",OTHERS,True\nmp-768638,\"{'Dy': 6.0, 'Sb': 10.0, 'O': 24.0}\",\"('Dy', 'O', 'Sb')\",OTHERS,True\nmp-778808,\"{'Li': 24.0, 'La': 12.0, 'Nb': 8.0, 'O': 48.0}\",\"('La', 'Li', 'Nb', 'O')\",OTHERS,True\nmp-867110,\"{'Sc': 2.0, 'Co': 1.0, 'Os': 1.0}\",\"('Co', 'Os', 'Sc')\",OTHERS,True\nmp-973203,\"{'Sb': 3.0, 'Mo': 1.0}\",\"('Mo', 'Sb')\",OTHERS,True\nmp-761257,\"{'Li': 4.0, 'Fe': 8.0, 'O': 2.0, 'F': 16.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-24103,\"{'H': 24.0, 'N': 4.0, 'O': 4.0, 'Cu': 2.0, 'Br': 8.0}\",\"('Br', 'Cu', 'H', 'N', 'O')\",OTHERS,True\nmp-756131,\"{'Sr': 4.0, 'Ca': 2.0, 'I': 12.0}\",\"('Ca', 'I', 'Sr')\",OTHERS,True\nmp-1223416,\"{'La': 2.0, 'Mn': 1.0, 'Pb': 1.0, 'O': 9.0}\",\"('La', 'Mn', 'O', 'Pb')\",OTHERS,True\nmp-772850,\"{'La': 8.0, 'Hf': 8.0, 'O': 28.0}\",\"('Hf', 'La', 'O')\",OTHERS,True\nmp-760076,\"{'Li': 10.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-1198260,\"{'Ce': 6.0, 'Ge': 26.0, 'Ir': 8.0}\",\"('Ce', 'Ge', 'Ir')\",OTHERS,True\nmp-1194197,\"{'La': 12.0, 'Si': 4.0, 'N': 16.0, 'F': 4.0}\",\"('F', 'La', 'N', 'Si')\",OTHERS,True\nmp-760293,\"{'Li': 2.0, 'Mn': 4.0, 'F': 10.0}\",\"('F', 'Li', 'Mn')\",OTHERS,True\nmp-753455,\"{'Bi': 4.0, 'O': 4.0, 'F': 12.0}\",\"('Bi', 'F', 'O')\",OTHERS,True\nmp-1205237,\"{'Ti': 12.0, 'C': 240.0, 'Cl': 48.0}\",\"('C', 'Cl', 'Ti')\",OTHERS,True\nmp-863421,\"{'Li': 12.0, 'V': 6.0, 'Si': 12.0, 'O': 36.0}\",\"('Li', 'O', 'Si', 'V')\",OTHERS,True\nmvc-5503,\"{'Ca': 6.0, 'Co': 12.0, 'O': 24.0}\",\"('Ca', 'Co', 'O')\",OTHERS,True\nmp-1070925,\"{'La': 2.0, 'P': 2.0, 'Rh': 2.0}\",\"('La', 'P', 'Rh')\",OTHERS,True\nmp-752795,\"{'Co': 6.0, 'O': 5.0, 'F': 7.0}\",\"('Co', 'F', 'O')\",OTHERS,True\nmp-766500,\"{'Li': 10.0, 'Mn': 6.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-567967,\"{'Li': 4.0, 'Ga': 4.0, 'I': 16.0}\",\"('Ga', 'I', 'Li')\",OTHERS,True\nmp-32959,\"{'H': 4.0, 'O': 2.0}\",\"('H', 'O')\",OTHERS,True\nmvc-8032,\"{'Zn': 3.0, 'Fe': 4.0, 'Mo': 6.0, 'O': 24.0}\",\"('Fe', 'Mo', 'O', 'Zn')\",OTHERS,True\nmp-36150,\"{'Sm': 4.0, 'Tm': 2.0, 'S': 8.0}\",\"('S', 'Sm', 'Tm')\",OTHERS,True\nmp-1111893,\"{'Na': 3.0, 'Ga': 1.0, 'Cl': 6.0}\",\"('Cl', 'Ga', 'Na')\",OTHERS,True\nmp-675048,\"{'Sr': 6.0, 'Nd': 8.0, 'O': 18.0}\",\"('Nd', 'O', 'Sr')\",OTHERS,True\nmp-603930,\"{'Mg': 4.0, 'Si': 4.0, 'O': 12.0}\",\"('Mg', 'O', 'Si')\",OTHERS,True\nmp-9468,\"{'O': 56.0, 'Mg': 2.0, 'P': 14.0, 'K': 2.0, 'Ca': 18.0}\",\"('Ca', 'K', 'Mg', 'O', 'P')\",OTHERS,True\nmp-1187592,\"{'Tc': 6.0, 'Pb': 2.0}\",\"('Pb', 'Tc')\",OTHERS,True\nmp-4343,\"{'Mn': 2.0, 'As': 2.0, 'Sr': 1.0}\",\"('As', 'Mn', 'Sr')\",OTHERS,True\nmp-1097284,\"{'Ag': 1.0, 'Sn': 1.0, 'Rh': 2.0}\",\"('Ag', 'Rh', 'Sn')\",OTHERS,True\nmp-1114648,\"{'Rb': 2.0, 'In': 1.0, 'As': 1.0, 'Cl': 6.0}\",\"('As', 'Cl', 'In', 'Rb')\",OTHERS,True\nmp-1218046,\"{'Ta': 2.0, 'Co': 8.0, 'Si': 2.0}\",\"('Co', 'Si', 'Ta')\",OTHERS,True\nmp-975109,\"{'Rb': 2.0, 'Na': 6.0}\",\"('Na', 'Rb')\",OTHERS,True\nmp-755904,\"{'Li': 4.0, 'V': 4.0, 'F': 16.0}\",\"('F', 'Li', 'V')\",OTHERS,True\nmp-774589,\"{'Ti': 3.0, 'Mn': 2.0, 'V': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Mn', 'O', 'P', 'Ti', 'V')\",OTHERS,True\nmp-1102662,\"{'Ca': 4.0, 'Mg': 4.0, 'Pd': 4.0}\",\"('Ca', 'Mg', 'Pd')\",OTHERS,True\nmp-615789,\"{'Ba': 8.0, 'Cu': 12.0, 'O': 24.0}\",\"('Ba', 'Cu', 'O')\",OTHERS,True\nmp-974690,\"{'Rb': 2.0, 'Cu': 1.0, 'Cl': 4.0}\",\"('Cl', 'Cu', 'Rb')\",OTHERS,True\nmp-1180949,\"{'K': 1.0, 'Fe': 3.0, 'S': 2.0, 'O': 14.0}\",\"('Fe', 'K', 'O', 'S')\",OTHERS,True\nmp-31502,\"{'Sc': 2.0, 'Cd': 14.0}\",\"('Cd', 'Sc')\",OTHERS,True\nmp-1183604,\"{'Ca': 2.0, 'Eu': 6.0}\",\"('Ca', 'Eu')\",OTHERS,True\nmp-571598,\"{'Ga': 6.0, 'Au': 21.0}\",\"('Au', 'Ga')\",OTHERS,True\nmp-17558,\"{'Ca': 10.0, 'Ga': 4.0, 'As': 12.0}\",\"('As', 'Ca', 'Ga')\",OTHERS,True\nmp-1012879,\"{'Li': 12.0, 'Cr': 8.0, 'Ge': 12.0, 'O': 48.0}\",\"('Cr', 'Ge', 'Li', 'O')\",OTHERS,True\nmp-695285,\"{'Sr': 2.0, 'Al': 2.0, 'Si': 10.0, 'N': 14.0, 'O': 4.0}\",\"('Al', 'N', 'O', 'Si', 'Sr')\",OTHERS,True\nmp-1191492,\"{'La': 8.0, 'P': 8.0, 'S': 8.0}\",\"('La', 'P', 'S')\",OTHERS,True\nmp-979265,\"{'Ta': 2.0, 'C': 1.0, 'N': 3.0}\",\"('C', 'N', 'Ta')\",OTHERS,True\nmp-7881,\"{'Ge': 2.0, 'Sr': 1.0, 'Cd': 2.0}\",\"('Cd', 'Ge', 'Sr')\",OTHERS,True\nmp-1094293,\"{'Sr': 6.0, 'Mg': 2.0}\",\"('Mg', 'Sr')\",OTHERS,True\nmp-1211984,\"{'La': 12.0, 'Ni': 6.0, 'Pb': 1.0}\",\"('La', 'Ni', 'Pb')\",OTHERS,True\nmp-774353,\"{'Li': 3.0, 'Ti': 1.0, 'Ni': 2.0, 'O': 6.0}\",\"('Li', 'Ni', 'O', 'Ti')\",OTHERS,True\nmp-696291,\"{'Zn': 2.0, 'H': 8.0, 'N': 4.0, 'O': 16.0}\",\"('H', 'N', 'O', 'Zn')\",OTHERS,True\nmp-772177,\"{'Li': 2.0, 'Fe': 3.0, 'Cu': 1.0, 'O': 8.0}\",\"('Cu', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-1075761,\"{'Mg': 10.0, 'Si': 18.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-978847,\"{'Sr': 1.0, 'Ga': 1.0, 'Ge': 1.0, 'H': 1.0}\",\"('Ga', 'Ge', 'H', 'Sr')\",OTHERS,True\nmp-1192592,\"{'Ce': 6.0, 'Mg': 23.0, 'Sb': 1.0}\",\"('Ce', 'Mg', 'Sb')\",OTHERS,True\nmp-765724,\"{'V': 6.0, 'F': 24.0}\",\"('F', 'V')\",OTHERS,True\nmp-865334,\"{'Lu': 2.0, 'Ni': 1.0, 'Os': 1.0}\",\"('Lu', 'Ni', 'Os')\",OTHERS,True\nmp-4103,\"{'O': 14.0, 'Sr': 4.0, 'Sb': 4.0}\",\"('O', 'Sb', 'Sr')\",OTHERS,True\nCd 6 Y 1,\"{'Cd': 6.0, 'Y': 1.0}\",\"('Cd', 'Y')\",AC,True\nmp-773170,\"{'Cr': 6.0, 'Sb': 2.0, 'O': 16.0}\",\"('Cr', 'O', 'Sb')\",OTHERS,True\nmp-756710,\"{'Cr': 3.0, 'Fe': 2.0, 'O': 8.0}\",\"('Cr', 'Fe', 'O')\",OTHERS,True\nmp-17394,\"{'O': 16.0, 'Na': 4.0, 'Ge': 4.0, 'Y': 4.0}\",\"('Ge', 'Na', 'O', 'Y')\",OTHERS,True\nmp-26198,\"{'Co': 4.0, 'P': 8.0, 'O': 28.0}\",\"('Co', 'O', 'P')\",OTHERS,True\nmvc-13133,\"{'Cu': 2.0, 'Sn': 1.0, 'Se': 4.0}\",\"('Cu', 'Se', 'Sn')\",OTHERS,True\nmp-759215,\"{'Li': 6.0, 'Mg': 1.0, 'Ni': 12.0, 'O': 26.0}\",\"('Li', 'Mg', 'Ni', 'O')\",OTHERS,True\nmp-1183186,\"{'As': 1.0, 'Pt': 3.0}\",\"('As', 'Pt')\",OTHERS,True\nmp-1078898,\"{'Gd': 2.0, 'B': 4.0, 'C': 4.0}\",\"('B', 'C', 'Gd')\",OTHERS,True\nmp-25208,\"{'O': 8.0, 'Bi': 4.0}\",\"('Bi', 'O')\",OTHERS,True\nmp-561490,\"{'Pd': 2.0, 'Se': 2.0, 'O': 8.0}\",\"('O', 'Pd', 'Se')\",OTHERS,True\nmp-777668,\"{'Li': 4.0, 'Ti': 3.0, 'Co': 3.0, 'Sn': 2.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'Sn', 'Ti')\",OTHERS,True\nmp-779064,\"{'Li': 8.0, 'Fe': 2.0, 'O': 2.0, 'F': 10.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-1077889,\"{'Ir': 2.0, 'C': 4.0}\",\"('C', 'Ir')\",OTHERS,True\nmp-568313,\"{'Si': 2.0, 'Se': 4.0}\",\"('Se', 'Si')\",OTHERS,True\nmp-1112080,\"{'K': 2.0, 'Ta': 1.0, 'Ag': 1.0, 'I': 6.0}\",\"('Ag', 'I', 'K', 'Ta')\",OTHERS,True\nmp-1218943,\"{'Sr': 10.0, 'Cu': 5.0, 'Mo': 3.0, 'W': 2.0, 'O': 30.0}\",\"('Cu', 'Mo', 'O', 'Sr', 'W')\",OTHERS,True\nmp-1266342,\"{'Na': 11.0, 'Zr': 8.0, 'Si': 7.0, 'P': 5.0, 'O': 48.0}\",\"('Na', 'O', 'P', 'Si', 'Zr')\",OTHERS,True\nmp-1193542,\"{'Li': 3.0, 'Mn': 3.0, 'V': 3.0, 'F': 18.0}\",\"('F', 'Li', 'Mn', 'V')\",OTHERS,True\nmp-1197580,\"{'Li': 12.0, 'Ca': 34.0, 'Hg': 18.0}\",\"('Ca', 'Hg', 'Li')\",OTHERS,True\nmp-1017555,\"{'Cs': 1.0, 'Be': 1.0, 'F': 3.0}\",\"('Be', 'Cs', 'F')\",OTHERS,True\nZn 84 Mg 7 Zr 9,\"{'Zn': 84.0, 'Mg': 7.0, 'Zr': 9.0}\",\"('Mg', 'Zn', 'Zr')\",QC,True\nmp-765010,\"{'Li': 6.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-772568,\"{'Li': 6.0, 'Cr': 12.0, 'O': 39.0}\",\"('Cr', 'Li', 'O')\",OTHERS,True\nmp-1193543,\"{'Nb': 8.0, 'Ni': 2.0, 'Se': 16.0}\",\"('Nb', 'Ni', 'Se')\",OTHERS,True\nmp-1104326,\"{'Ho': 2.0, 'V': 2.0, 'O': 8.0}\",\"('Ho', 'O', 'V')\",OTHERS,True\nmp-559663,\"{'Li': 2.0, 'F': 12.0, 'Ni': 2.0, 'Sr': 2.0}\",\"('F', 'Li', 'Ni', 'Sr')\",OTHERS,True\nmp-1187073,{'Sr': 3.0},\"('Sr',)\",OTHERS,True\nmp-1222755,\"{'La': 1.0, 'Y': 1.0, 'Mn': 4.0, 'Si': 4.0}\",\"('La', 'Mn', 'Si', 'Y')\",OTHERS,True\nmp-1244901,\"{'V': 30.0, 'O': 75.0}\",\"('O', 'V')\",OTHERS,True\nmp-1210151,\"{'Nd': 6.0, 'Re': 4.0, 'O': 18.0}\",\"('Nd', 'O', 'Re')\",OTHERS,True\nmp-774451,\"{'Li': 4.0, 'Mn': 3.0, 'Fe': 2.0, 'Co': 3.0, 'O': 16.0}\",\"('Co', 'Fe', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1069825,\"{'Pr': 1.0, 'Al': 3.0, 'Cu': 1.0}\",\"('Al', 'Cu', 'Pr')\",OTHERS,True\nmp-1247468,\"{'Mg': 10.0, 'Co': 2.0, 'N': 8.0}\",\"('Co', 'Mg', 'N')\",OTHERS,True\nmp-4895,\"{'As': 2.0, 'Te': 2.0, 'U': 2.0}\",\"('As', 'Te', 'U')\",OTHERS,True\nmp-1224472,\"{'Ho': 30.0, 'Si': 18.0, 'C': 2.0}\",\"('C', 'Ho', 'Si')\",OTHERS,True\nmp-757838,\"{'Li': 4.0, 'Sn': 4.0, 'P': 12.0, 'O': 36.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,True\nmp-543029,\"{'La': 2.0, 'I': 2.0, 'Te': 1.0}\",\"('I', 'La', 'Te')\",OTHERS,True\nmp-1068559,\"{'La': 1.0, 'Co': 1.0, 'Si': 3.0}\",\"('Co', 'La', 'Si')\",OTHERS,True\nmp-1180580,\"{'Li': 1.0, 'H': 1.0, 'F': 2.0}\",\"('F', 'H', 'Li')\",OTHERS,True\nmp-1187698,\"{'V': 1.0, 'Zn': 1.0, 'Co': 2.0}\",\"('Co', 'V', 'Zn')\",OTHERS,True\nmp-7130,\"{'C': 1.0, 'Sc': 1.0, 'Ru': 3.0}\",\"('C', 'Ru', 'Sc')\",OTHERS,True\nmp-696152,\"{'Cu': 1.0, 'Sn': 1.0, 'H': 12.0, 'N': 2.0, 'O': 6.0}\",\"('Cu', 'H', 'N', 'O', 'Sn')\",OTHERS,True\nmp-1183208,\"{'Al': 1.0, 'Ga': 3.0}\",\"('Al', 'Ga')\",OTHERS,True\nmp-1206182,\"{'La': 2.0, 'C': 2.0, 'I': 2.0}\",\"('C', 'I', 'La')\",OTHERS,True\nmp-1216113,\"{'Y': 4.0, 'Mn': 1.0, 'S': 7.0}\",\"('Mn', 'S', 'Y')\",OTHERS,True\nmp-1094665,\"{'Li': 1.0, 'Mg': 3.0}\",\"('Li', 'Mg')\",OTHERS,True\nmp-1186627,\"{'Pm': 1.0, 'Pr': 1.0, 'Hg': 2.0}\",\"('Hg', 'Pm', 'Pr')\",OTHERS,True\nmp-972370,\"{'Yb': 2.0, 'In': 1.0, 'Hg': 1.0}\",\"('Hg', 'In', 'Yb')\",OTHERS,True\nmp-1206494,\"{'Lu': 3.0, 'In': 3.0, 'Ni': 3.0}\",\"('In', 'Lu', 'Ni')\",OTHERS,True\nmp-30142,\"{'Be': 12.0, 'N': 18.0, 'O': 57.0}\",\"('Be', 'N', 'O')\",OTHERS,True\nmp-19932,\"{'Se': 12.0, 'In': 16.0}\",\"('In', 'Se')\",OTHERS,True\nmp-1212719,\"{'Fe': 20.0, 'Si': 4.0, 'C': 4.0}\",\"('C', 'Fe', 'Si')\",OTHERS,True\nmp-978539,\"{'Sm': 1.0, 'Tm': 1.0, 'Ru': 2.0}\",\"('Ru', 'Sm', 'Tm')\",OTHERS,True\nmp-1186053,\"{'Na': 3.0, 'Nb': 1.0}\",\"('Na', 'Nb')\",OTHERS,True\nmp-1210663,\"{'Mg': 14.0, 'Ir': 6.0}\",\"('Ir', 'Mg')\",OTHERS,True\nmp-1209975,\"{'Nd': 12.0, 'Se': 12.0, 'N': 4.0}\",\"('N', 'Nd', 'Se')\",OTHERS,True\nmp-1207889,\"{'W': 12.0, 'I': 24.0}\",\"('I', 'W')\",OTHERS,True\nmp-865176,\"{'Hf': 1.0, 'Cu': 3.0}\",\"('Cu', 'Hf')\",OTHERS,True\nmp-21684,\"{'P': 12.0, 'Cu': 19.0, 'Ce': 5.0}\",\"('Ce', 'Cu', 'P')\",OTHERS,True\nmp-680092,\"{'Cd': 10.0, 'I': 20.0}\",\"('Cd', 'I')\",OTHERS,True\nmp-973924,\"{'Li': 1.0, 'Mg': 16.0, 'Al': 12.0}\",\"('Al', 'Li', 'Mg')\",OTHERS,True\nmp-769010,\"{'Li': 12.0, 'Bi': 10.0, 'O': 28.0}\",\"('Bi', 'Li', 'O')\",OTHERS,True\nmp-23621,\"{'O': 48.0, 'Na': 4.0, 'P': 16.0, 'Bi': 4.0}\",\"('Bi', 'Na', 'O', 'P')\",OTHERS,True\nmp-1064227,{'Ca': 4.0},\"('Ca',)\",OTHERS,True\nmp-1076754,\"{'K': 16.0, 'Na': 16.0, 'Mo': 28.0, 'W': 4.0, 'O': 80.0}\",\"('K', 'Mo', 'Na', 'O', 'W')\",OTHERS,True\nmp-28337,\"{'O': 13.0, 'V': 4.0, 'As': 2.0}\",\"('As', 'O', 'V')\",OTHERS,True\nmp-558376,\"{'Na': 8.0, 'Mn': 8.0, 'O': 12.0}\",\"('Mn', 'Na', 'O')\",OTHERS,True\nmp-1199525,\"{'U': 4.0, 'P': 16.0, 'O': 48.0}\",\"('O', 'P', 'U')\",OTHERS,True\nmp-1120721,\"{'Rb': 2.0, 'Ge': 2.0, 'Br': 6.0}\",\"('Br', 'Ge', 'Rb')\",OTHERS,True\nmvc-1323,\"{'Ba': 2.0, 'Y': 2.0, 'Fe': 8.0, 'O': 14.0}\",\"('Ba', 'Fe', 'O', 'Y')\",OTHERS,True\nmp-1228975,\"{'Al': 2.0, 'Cr': 3.0, 'Cu': 1.0, 'S': 8.0}\",\"('Al', 'Cr', 'Cu', 'S')\",OTHERS,True\nmp-1105355,\"{'Ca': 1.0, 'Mn': 7.0, 'O': 12.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,True\nmp-760126,\"{'Na': 8.0, 'V': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Na', 'O', 'P', 'V')\",OTHERS,True\nmp-554085,\"{'Te': 6.0, 'C': 12.0, 'F': 48.0}\",\"('C', 'F', 'Te')\",OTHERS,True\nmp-1096168,\"{'Ca': 2.0, 'Zn': 1.0, 'Ag': 1.0}\",\"('Ag', 'Ca', 'Zn')\",OTHERS,True\nmp-683902,\"{'Rb': 6.0, 'Nb': 4.0, 'As': 2.0, 'Se': 22.0}\",\"('As', 'Nb', 'Rb', 'Se')\",OTHERS,True\nmp-669347,\"{'K': 8.0, 'Cu': 8.0, 'F': 24.0}\",\"('Cu', 'F', 'K')\",OTHERS,True\nmp-1027946,\"{'Y': 1.0, 'Mg': 14.0, 'Sb': 1.0}\",\"('Mg', 'Sb', 'Y')\",OTHERS,True\nmp-1192712,\"{'K': 4.0, 'I': 4.0, 'Cl': 16.0, 'O': 4.0}\",\"('Cl', 'I', 'K', 'O')\",OTHERS,True\nmp-1182074,\"{'Ca': 2.0, 'Co': 1.0, 'O': 3.0}\",\"('Ca', 'Co', 'O')\",OTHERS,True\nmp-27342,\"{'F': 24.0, 'Ge': 10.0}\",\"('F', 'Ge')\",OTHERS,True\nmp-1113456,\"{'Rb': 2.0, 'Sb': 1.0, 'Au': 1.0, 'Cl': 6.0}\",\"('Au', 'Cl', 'Rb', 'Sb')\",OTHERS,True\nmp-690725,\"{'Tl': 2.0, 'Cu': 2.0, 'H': 2.0, 'S': 2.0, 'O': 10.0}\",\"('Cu', 'H', 'O', 'S', 'Tl')\",OTHERS,True\nmp-1193418,\"{'Y': 2.0, 'I': 6.0, 'O': 22.0}\",\"('I', 'O', 'Y')\",OTHERS,True\nmp-766575,\"{'Li': 32.0, 'Ti': 4.0, 'S': 24.0}\",\"('Li', 'S', 'Ti')\",OTHERS,True\nmp-555076,\"{'K': 4.0, 'Na': 4.0, 'Sn': 4.0, 'F': 24.0}\",\"('F', 'K', 'Na', 'Sn')\",OTHERS,True\nmp-5563,\"{'O': 16.0, 'Ge': 4.0, 'Ag': 20.0}\",\"('Ag', 'Ge', 'O')\",OTHERS,True\nmp-1183288,\"{'Ba': 1.0, 'In': 1.0, 'O': 3.0}\",\"('Ba', 'In', 'O')\",OTHERS,True\nmp-1210101,\"{'Na': 1.0, 'Be': 2.0, 'Tl': 3.0, 'F': 8.0}\",\"('Be', 'F', 'Na', 'Tl')\",OTHERS,True\nmp-6980,\"{'S': 2.0, 'Sc': 1.0, 'Cu': 1.0}\",\"('Cu', 'S', 'Sc')\",OTHERS,True\nCd 65 Mg 20 Ho 15,\"{'Cd': 65.0, 'Mg': 20.0, 'Ho': 15.0}\",\"('Cd', 'Ho', 'Mg')\",QC,True\nmp-1226365,\"{'Cs': 2.0, 'Cu': 3.0, 'Ni': 1.0, 'F': 10.0}\",\"('Cs', 'Cu', 'F', 'Ni')\",OTHERS,True\nmp-1025691,\"{'Te': 4.0, 'Mo': 1.0, 'W': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Te', 'W')\",OTHERS,True\nmp-571136,\"{'Cd': 7.0, 'I': 14.0}\",\"('Cd', 'I')\",OTHERS,True\nmp-1221207,\"{'Na': 8.0, 'Ca': 4.0, 'Si': 2.0, 'P': 8.0}\",\"('Ca', 'Na', 'P', 'Si')\",OTHERS,True\nmp-1217328,\"{'Th': 1.0, 'Mn': 3.0, 'Al': 2.0}\",\"('Al', 'Mn', 'Th')\",OTHERS,True\nmp-1080104,\"{'Pr': 2.0, 'B': 4.0, 'Ir': 4.0}\",\"('B', 'Ir', 'Pr')\",OTHERS,True\nmp-1205147,\"{'Sm': 2.0, 'Ni': 24.0, 'B': 12.0}\",\"('B', 'Ni', 'Sm')\",OTHERS,True\nmp-640818,\"{'Mo': 36.0, 'O': 104.0}\",\"('Mo', 'O')\",OTHERS,True\nmp-1021492,\"{'Cd': 4.0, 'S': 1.0, 'F': 6.0}\",\"('Cd', 'F', 'S')\",OTHERS,True\nmp-7405,\"{'O': 12.0, 'Al': 4.0, 'Sm': 4.0}\",\"('Al', 'O', 'Sm')\",OTHERS,True\nmp-755923,\"{'Fe': 6.0, 'O': 7.0, 'F': 5.0}\",\"('F', 'Fe', 'O')\",OTHERS,True\nmp-1211934,\"{'La': 12.0, 'Al': 2.0, 'Fe': 26.0}\",\"('Al', 'Fe', 'La')\",OTHERS,True\nmp-1226892,\"{'Ce': 2.0, 'Co': 5.0, 'Cu': 5.0}\",\"('Ce', 'Co', 'Cu')\",OTHERS,True\nZn 56.8 Mg 34.6 Dy 8.7,\"{'Zn': 56.8, 'Mg': 34.6, 'Dy': 8.7}\",\"('Dy', 'Mg', 'Zn')\",QC,True\nmp-19276,\"{'O': 8.0, 'Ba': 2.0, 'Mo': 2.0}\",\"('Ba', 'Mo', 'O')\",OTHERS,True\nmp-1198608,\"{'V': 8.0, 'Zn': 4.0, 'P': 12.0, 'N': 4.0, 'O': 60.0}\",\"('N', 'O', 'P', 'V', 'Zn')\",OTHERS,True\nmp-766389,\"{'Li': 12.0, 'Mn': 3.0, 'O': 3.0, 'F': 15.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-759728,\"{'Sb': 14.0, 'O': 12.0, 'F': 18.0}\",\"('F', 'O', 'Sb')\",OTHERS,True\nmp-557650,\"{'Sr': 3.0, 'P': 6.0, 'N': 8.0, 'O': 6.0}\",\"('N', 'O', 'P', 'Sr')\",OTHERS,True\nmp-5308,\"{'O': 36.0, 'La': 4.0, 'Ta': 12.0}\",\"('La', 'O', 'Ta')\",OTHERS,True\nmp-4954,\"{'Si': 2.0, 'Pd': 2.0, 'La': 1.0}\",\"('La', 'Pd', 'Si')\",OTHERS,True\nmp-1111928,\"{'K': 2.0, 'Li': 1.0, 'As': 1.0, 'F': 6.0}\",\"('As', 'F', 'K', 'Li')\",OTHERS,True\nmp-697721,\"{'H': 32.0, 'C': 8.0, 'N': 4.0, 'Cl': 4.0}\",\"('C', 'Cl', 'H', 'N')\",OTHERS,True\nmp-752897,\"{'Li': 3.0, 'Fe': 7.0, 'O': 12.0}\",\"('Fe', 'Li', 'O')\",OTHERS,True\nmp-17876,\"{'O': 16.0, 'Na': 4.0, 'Mn': 4.0, 'As': 4.0}\",\"('As', 'Mn', 'Na', 'O')\",OTHERS,True\nmp-23041,\"{'S': 4.0, 'Sb': 4.0, 'I': 4.0}\",\"('I', 'S', 'Sb')\",OTHERS,True\nmp-1227498,\"{'Ba': 1.0, 'Sr': 1.0, 'Nd': 1.0, 'Cu': 3.0, 'O': 7.0}\",\"('Ba', 'Cu', 'Nd', 'O', 'Sr')\",OTHERS,True\nmp-1028791,\"{'Te': 4.0, 'Mo': 1.0, 'W': 3.0, 'Se': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,True\nmp-1205359,\"{'Ba': 2.0, 'U': 1.0, 'Cu': 1.0, 'O': 6.0}\",\"('Ba', 'Cu', 'O', 'U')\",OTHERS,True\nmp-1197910,\"{'K': 8.0, 'Si': 32.0, 'H': 216.0, 'C': 72.0, 'O': 24.0}\",\"('C', 'H', 'K', 'O', 'Si')\",OTHERS,True\nmp-15626,\"{'F': 6.0, 'Na': 1.0, 'Ti': 1.0, 'Rb': 2.0}\",\"('F', 'Na', 'Rb', 'Ti')\",OTHERS,True\nmp-561499,\"{'Dy': 6.0, 'Cu': 2.0, 'Sn': 2.0, 'S': 14.0}\",\"('Cu', 'Dy', 'S', 'Sn')\",OTHERS,True\nmp-1210171,\"{'Pu': 8.0, 'Ni': 2.0}\",\"('Ni', 'Pu')\",OTHERS,True\nmp-570847,\"{'Co': 1.0, 'H': 3.0, 'C': 6.0, 'N': 6.0}\",\"('C', 'Co', 'H', 'N')\",OTHERS,True\nmp-767404,\"{'Gd': 4.0, 'As': 8.0, 'O': 22.0}\",\"('As', 'Gd', 'O')\",OTHERS,True\nmp-721047,\"{'Ca': 2.0, 'H': 16.0, 'Cl': 4.0, 'O': 8.0}\",\"('Ca', 'Cl', 'H', 'O')\",OTHERS,True\nmp-560756,\"{'Th': 9.0, 'Mo': 18.0, 'O': 72.0}\",\"('Mo', 'O', 'Th')\",OTHERS,True\nmp-867750,\"{'Ti': 3.0, 'P': 1.0, 'O': 7.0}\",\"('O', 'P', 'Ti')\",OTHERS,True\nmp-694318,\"{'In': 16.0, 'W': 24.0, 'O': 96.0}\",\"('In', 'O', 'W')\",OTHERS,True\nmp-10895,\"{'Al': 1.0, 'V': 1.0, 'Mn': 2.0}\",\"('Al', 'Mn', 'V')\",OTHERS,True\nmp-605166,\"{'K': 4.0, 'Dy': 4.0, 'H': 8.0, 'C': 8.0, 'S': 4.0, 'O': 36.0}\",\"('C', 'Dy', 'H', 'K', 'O', 'S')\",OTHERS,True\nmp-1213975,\"{'Ca': 4.0, 'B': 16.0}\",\"('B', 'Ca')\",OTHERS,True\nmp-1215913,\"{'Y': 1.0, 'Co': 1.0, 'C': 1.0}\",\"('C', 'Co', 'Y')\",OTHERS,True\nmp-765473,\"{'Co': 4.0, 'Te': 8.0, 'O': 20.0}\",\"('Co', 'O', 'Te')\",OTHERS,True\nmp-754099,\"{'Li': 4.0, 'Ti': 2.0, 'Fe': 4.0, 'O': 10.0}\",\"('Fe', 'Li', 'O', 'Ti')\",OTHERS,True\nmp-531110,\"{'Ca': 18.0, 'F': 40.0, 'Pr': 2.0}\",\"('Ca', 'F', 'Pr')\",OTHERS,True\nmp-1064933,{'S': 4.0},\"('S',)\",OTHERS,True\nmp-11565,\"{'Y': 1.0, 'Rh': 5.0}\",\"('Rh', 'Y')\",OTHERS,True\nmp-759999,\"{'Mn': 12.0, 'O': 14.0, 'F': 10.0}\",\"('F', 'Mn', 'O')\",OTHERS,True\nmp-23259,\"{'Li': 1.0, 'Br': 1.0}\",\"('Br', 'Li')\",OTHERS,True\nmp-9873,\"{'Zn': 2.0, 'Ge': 2.0, 'Eu': 2.0}\",\"('Eu', 'Ge', 'Zn')\",OTHERS,True\nmp-768432,\"{'Mn': 2.0, 'Tl': 2.0, 'O': 6.0}\",\"('Mn', 'O', 'Tl')\",OTHERS,True\nmp-12984,\"{'Cu': 4.0, 'Se': 8.0, 'Tb': 4.0}\",\"('Cu', 'Se', 'Tb')\",OTHERS,True\nmp-759261,\"{'Li': 4.0, 'Co': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'Si')\",OTHERS,True\nmp-1198465,\"{'Er': 8.0, 'B': 24.0, 'Ru': 4.0}\",\"('B', 'Er', 'Ru')\",OTHERS,True\nmp-559672,\"{'K': 2.0, 'Ni': 2.0, 'As': 2.0, 'O': 8.0}\",\"('As', 'K', 'Ni', 'O')\",OTHERS,True\nmp-770540,\"{'Mn': 8.0, 'P': 4.0, 'O': 20.0}\",\"('Mn', 'O', 'P')\",OTHERS,True\nmp-1210604,\"{'Na': 3.0, 'Eu': 1.0, 'V': 2.0, 'O': 8.0}\",\"('Eu', 'Na', 'O', 'V')\",OTHERS,True\nmp-571033,\"{'Ni': 2.0, 'Se': 2.0}\",\"('Ni', 'Se')\",OTHERS,True\nmp-1223557,\"{'K': 2.0, 'U': 4.0, 'Sb': 2.0, 'Se': 16.0}\",\"('K', 'Sb', 'Se', 'U')\",OTHERS,True\nmp-676117,\"{'Li': 4.0, 'Cu': 2.0, 'Ge': 2.0}\",\"('Cu', 'Ge', 'Li')\",OTHERS,True\nmp-771335,\"{'Na': 6.0, 'Sn': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Na', 'O', 'P', 'Sn')\",OTHERS,True\nmp-759841,\"{'Li': 8.0, 'Mn': 16.0, 'O': 4.0, 'F': 32.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-761267,\"{'Li': 4.0, 'V': 2.0, 'O': 2.0, 'F': 8.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,True\nmp-22988,\"{'Cl': 3.0, 'Ge': 1.0, 'Cs': 1.0}\",\"('Cl', 'Cs', 'Ge')\",OTHERS,True\nmp-21105,\"{'Si': 4.0, 'Pu': 2.0}\",\"('Pu', 'Si')\",OTHERS,True\nmp-1215070,\"{'Ca': 8.0, 'Al': 16.0, 'Si': 16.0, 'W': 16.0, 'O': 64.0}\",\"('Al', 'Ca', 'O', 'Si', 'W')\",OTHERS,True\nmp-865531,\"{'Ti': 1.0, 'Mn': 2.0, 'Al': 1.0}\",\"('Al', 'Mn', 'Ti')\",OTHERS,True\nmp-1202107,\"{'Hg': 4.0, 'C': 32.0, 'N': 8.0, 'Cl': 16.0}\",\"('C', 'Cl', 'Hg', 'N')\",OTHERS,True\nmp-561743,\"{'Li': 8.0, 'Co': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'Si')\",OTHERS,True\nmp-1112506,\"{'Cs': 2.0, 'Al': 1.0, 'Tl': 1.0, 'Br': 6.0}\",\"('Al', 'Br', 'Cs', 'Tl')\",OTHERS,True\nmp-10096,\"{'Na': 6.0, 'P': 8.0, 'Ga': 2.0, 'Sr': 6.0}\",\"('Ga', 'Na', 'P', 'Sr')\",OTHERS,True\nmp-631314,\"{'K': 1.0, 'Ta': 1.0, 'Pt': 1.0}\",\"('K', 'Pt', 'Ta')\",OTHERS,True\nmp-1176603,\"{'Na': 8.0, 'Fe': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Na', 'O', 'P')\",OTHERS,True\nmp-644281,\"{'Mg': 7.0, 'Ti': 1.0, 'H': 16.0}\",\"('H', 'Mg', 'Ti')\",OTHERS,True\nmp-1027772,\"{'Te': 2.0, 'Mo': 3.0, 'W': 1.0, 'Se': 2.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,True\nmvc-1665,\"{'Ba': 4.0, 'Mg': 2.0, 'Cu': 6.0, 'F': 28.0}\",\"('Ba', 'Cu', 'F', 'Mg')\",OTHERS,True\nmp-1078544,\"{'Sc': 4.0, 'In': 2.0, 'Cu': 4.0}\",\"('Cu', 'In', 'Sc')\",OTHERS,True\nmp-1061865,\"{'Te': 1.0, 'N': 2.0}\",\"('N', 'Te')\",OTHERS,True\nmp-1199711,\"{'Si': 72.0, 'O': 116.0}\",\"('O', 'Si')\",OTHERS,True\nmp-4730,\"{'Ga': 2.0, 'Se': 4.0, 'Hg': 1.0}\",\"('Ga', 'Hg', 'Se')\",OTHERS,True\nmp-1177524,\"{'Li': 12.0, 'Ti': 8.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'O', 'P', 'Ti')\",OTHERS,True\nmp-766596,\"{'Ti': 8.0, 'Si': 16.0, 'O': 48.0}\",\"('O', 'Si', 'Ti')\",OTHERS,True\nmp-30527,\"{'Ta': 6.0, 'S': 18.0}\",\"('S', 'Ta')\",OTHERS,True\nmp-1101268,\"{'V': 1.0, 'Fe': 7.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'O', 'P', 'V')\",OTHERS,True\nmp-676881,\"{'Ho': 8.0, 'Zr': 6.0, 'O': 24.0}\",\"('Ho', 'O', 'Zr')\",OTHERS,True\nmp-675633,\"{'Ag': 4.0, 'Au': 1.0, 'S': 2.0}\",\"('Ag', 'Au', 'S')\",OTHERS,True\nmp-684705,\"{'Ca': 2.0, 'La': 2.0, 'Mn': 2.0, 'Mo': 2.0, 'O': 12.0}\",\"('Ca', 'La', 'Mn', 'Mo', 'O')\",OTHERS,True\nmp-215,\"{'Y': 1.0, 'Sb': 1.0}\",\"('Sb', 'Y')\",OTHERS,True\nmp-611836,{'O': 2.0},\"('O',)\",OTHERS,True\nmp-779159,\"{'Na': 32.0, 'Cu': 8.0, 'O': 28.0}\",\"('Cu', 'Na', 'O')\",OTHERS,True\nmp-27557,\"{'Na': 32.0, 'Fe': 8.0, 'O': 28.0}\",\"('Fe', 'Na', 'O')\",OTHERS,True\nmp-1244816,\"{'Sr': 2.0, 'Y': 1.0, 'Tl': 1.0, 'Ni': 2.0, 'O': 7.0}\",\"('Ni', 'O', 'Sr', 'Tl', 'Y')\",OTHERS,True\nmp-585476,\"{'Cs': 14.0, 'Np': 6.0, 'Cl': 24.0, 'O': 12.0}\",\"('Cl', 'Cs', 'Np', 'O')\",OTHERS,True\nmp-1214575,\"{'Ba': 10.0, 'Mn': 6.0, 'O': 24.0, 'F': 2.0}\",\"('Ba', 'F', 'Mn', 'O')\",OTHERS,True\nmp-865482,\"{'V': 1.0, 'Tc': 2.0, 'Ge': 1.0}\",\"('Ge', 'Tc', 'V')\",OTHERS,True\nmp-27841,\"{'O': 2.0, 'V': 2.0, 'Br': 2.0}\",\"('Br', 'O', 'V')\",OTHERS,True\nmp-774749,\"{'Rb': 1.0, 'Na': 3.0, 'Li': 12.0, 'Ti': 4.0, 'O': 16.0}\",\"('Li', 'Na', 'O', 'Rb', 'Ti')\",OTHERS,True\nmp-1208535,\"{'Tb': 4.0, 'Ga': 18.0, 'Ir': 6.0}\",\"('Ga', 'Ir', 'Tb')\",OTHERS,True\nmp-617632,\"{'La': 6.0, 'Ag': 2.0, 'Ge': 2.0, 'S': 14.0}\",\"('Ag', 'Ge', 'La', 'S')\",OTHERS,True\nmp-1176994,\"{'Li': 7.0, 'V': 3.0, 'Si': 2.0, 'O': 12.0}\",\"('Li', 'O', 'Si', 'V')\",OTHERS,True\nmp-1194802,\"{'V': 8.0, 'Co': 4.0, 'O': 32.0}\",\"('Co', 'O', 'V')\",OTHERS,True\nmp-1114386,\"{'Rb': 2.0, 'Al': 1.0, 'In': 1.0, 'F': 6.0}\",\"('Al', 'F', 'In', 'Rb')\",OTHERS,True\nmp-754908,\"{'Nb': 1.0, 'Cr': 1.0, 'O': 4.0}\",\"('Cr', 'Nb', 'O')\",OTHERS,True\nmvc-8086,\"{'Sn': 2.0, 'Ge': 4.0, 'O': 12.0}\",\"('Ge', 'O', 'Sn')\",OTHERS,True\nmp-754409,\"{'Ho': 2.0, 'B': 2.0, 'O': 6.0}\",\"('B', 'Ho', 'O')\",OTHERS,True\nmp-10274,\"{'C': 1.0, 'Ga': 1.0, 'Er': 3.0}\",\"('C', 'Er', 'Ga')\",OTHERS,True\nmp-1017579,\"{'In': 2.0, 'Au': 3.0}\",\"('Au', 'In')\",OTHERS,True\nmvc-3996,\"{'Ca': 4.0, 'W': 4.0, 'O': 12.0}\",\"('Ca', 'O', 'W')\",OTHERS,True\nmp-756246,\"{'Nd': 4.0, 'Zr': 4.0, 'O': 12.0}\",\"('Nd', 'O', 'Zr')\",OTHERS,True\nmp-4499,\"{'Mg': 4.0, 'Al': 4.0, 'Si': 4.0}\",\"('Al', 'Mg', 'Si')\",OTHERS,True\nmp-1191015,\"{'Li': 8.0, 'Nd': 8.0, 'Sn': 8.0}\",\"('Li', 'Nd', 'Sn')\",OTHERS,True\nmp-775302,\"{'Li': 8.0, 'Cr': 4.0, 'Si': 24.0, 'O': 60.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,True\nmp-29266,\"{'S': 2.0, 'Cs': 2.0}\",\"('Cs', 'S')\",OTHERS,True\nmp-650280,\"{'Cs': 16.0, 'As': 64.0, 'S': 104.0}\",\"('As', 'Cs', 'S')\",OTHERS,True\nmp-976784,\"{'Ni': 1.0, 'Au': 3.0}\",\"('Au', 'Ni')\",OTHERS,True\nmp-775189,\"{'Li': 12.0, 'Mn': 6.0, 'Fe': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Fe', 'Li', 'Mn', 'O', 'P')\",OTHERS,True\nmp-23828,\"{'H': 12.0, 'Br': 2.0, 'Sr': 7.0}\",\"('Br', 'H', 'Sr')\",OTHERS,True\nmp-1239164,\"{'Nb': 2.0, 'Cr': 6.0, 'Cu': 4.0, 'S': 16.0}\",\"('Cr', 'Cu', 'Nb', 'S')\",OTHERS,True\nmp-1207192,\"{'Nd': 2.0, 'H': 2.0, 'Se': 2.0}\",\"('H', 'Nd', 'Se')\",OTHERS,True\nmp-757653,\"{'Li': 16.0, 'Fe': 16.0, 'P': 16.0, 'O': 64.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,True\nmp-1094377,\"{'Mg': 12.0, 'Ti': 6.0}\",\"('Mg', 'Ti')\",OTHERS,True\nmp-5431,\"{'O': 6.0, 'Te': 2.0, 'Ba': 2.0}\",\"('Ba', 'O', 'Te')\",OTHERS,True\nmvc-4372,\"{'Ca': 4.0, 'Ta': 2.0, 'Co': 2.0, 'O': 12.0}\",\"('Ca', 'Co', 'O', 'Ta')\",OTHERS,True\nmp-778376,\"{'Li': 32.0, 'Mn': 5.0, 'Cr': 11.0, 'O': 48.0}\",\"('Cr', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1096710,\"{'Ti': 1.0, 'V': 2.0, 'W': 1.0}\",\"('Ti', 'V', 'W')\",OTHERS,True\nmp-6105,\"{'O': 32.0, 'Se': 8.0, 'Pr': 8.0, 'Ta': 12.0}\",\"('O', 'Pr', 'Se', 'Ta')\",OTHERS,True\nmp-752880,\"{'Fe': 8.0, 'O': 8.0, 'F': 8.0}\",\"('F', 'Fe', 'O')\",OTHERS,True\nmp-1187765,\"{'Y': 2.0, 'Al': 1.0, 'Ru': 1.0}\",\"('Al', 'Ru', 'Y')\",OTHERS,True\nmp-1076884,\"{'Sr': 24.0, 'Ca': 8.0, 'Fe': 28.0, 'Co': 4.0, 'O': 80.0}\",\"('Ca', 'Co', 'Fe', 'O', 'Sr')\",OTHERS,True\nmp-642648,\"{'K': 2.0, 'P': 2.0, 'H': 4.0, 'O': 4.0}\",\"('H', 'K', 'O', 'P')\",OTHERS,True\nmp-730972,\"{'U': 4.0, 'P': 12.0, 'H': 40.0, 'Cl': 4.0, 'O': 32.0}\",\"('Cl', 'H', 'O', 'P', 'U')\",OTHERS,True\nmp-505629,\"{'Cr': 12.0, 'Ni': 8.0, 'Si': 4.0}\",\"('Cr', 'Ni', 'Si')\",OTHERS,True\nmp-230,\"{'Sb': 8.0, 'O': 16.0}\",\"('O', 'Sb')\",OTHERS,True\nmp-1211816,\"{'K': 4.0, 'In': 4.0, 'P': 8.0, 'Se': 24.0}\",\"('In', 'K', 'P', 'Se')\",OTHERS,True\nmp-21473,\"{'P': 2.0, 'Ni': 2.0, 'Gd': 1.0}\",\"('Gd', 'Ni', 'P')\",OTHERS,True\nmp-1198684,\"{'K': 12.0, 'Mo': 14.0, 'O': 68.0}\",\"('K', 'Mo', 'O')\",OTHERS,True\nmp-1214277,\"{'Ce': 6.0, 'N': 8.0, 'O': 33.0}\",\"('Ce', 'N', 'O')\",OTHERS,True\nmp-867313,\"{'Li': 1.0, 'Tm': 1.0, 'Pt': 2.0}\",\"('Li', 'Pt', 'Tm')\",OTHERS,True\nmp-9694,\"{'Ge': 4.0, 'Pd': 4.0, 'Tm': 3.0}\",\"('Ge', 'Pd', 'Tm')\",OTHERS,True\nmp-568405,\"{'K': 4.0, 'Nb': 2.0, 'Cl': 12.0}\",\"('Cl', 'K', 'Nb')\",OTHERS,True\nmp-21650,\"{'Li': 8.0, 'O': 32.0, 'Ni': 4.0, 'Ge': 12.0}\",\"('Ge', 'Li', 'Ni', 'O')\",OTHERS,True\nmp-994,\"{'P': 1.0, 'Y': 1.0}\",\"('P', 'Y')\",OTHERS,True\nmp-680167,\"{'Li': 2.0, 'Mo': 12.0, 'Cl': 26.0}\",\"('Cl', 'Li', 'Mo')\",OTHERS,True\nmp-1247016,\"{'Si': 12.0, 'Sb': 6.0, 'N': 22.0}\",\"('N', 'Sb', 'Si')\",OTHERS,True\nmp-1180215,\"{'N': 6.0, 'O': 3.0}\",\"('N', 'O')\",OTHERS,True\nmp-1228626,\"{'Ba': 2.0, 'Si': 3.0, 'Ge': 5.0, 'O': 18.0}\",\"('Ba', 'Ge', 'O', 'Si')\",OTHERS,True\nmp-1098076,\"{'Ce': 1.0, 'Mg': 6.0, 'B': 1.0}\",\"('B', 'Ce', 'Mg')\",OTHERS,True\nmp-757960,\"{'Li': 4.0, 'Ni': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,True\nmp-15779,\"{'Mg': 2.0, 'Si': 1.0, 'Ni': 3.0}\",\"('Mg', 'Ni', 'Si')\",OTHERS,True\nmp-1114642,\"{'Rb': 2.0, 'Li': 1.0, 'Ga': 1.0, 'F': 6.0}\",\"('F', 'Ga', 'Li', 'Rb')\",OTHERS,True\nmp-1019361,\"{'Th': 2.0, 'Sb': 2.0, 'Te': 2.0}\",\"('Sb', 'Te', 'Th')\",OTHERS,True\nmp-1179094,\"{'Sr': 4.0, 'H': 8.0}\",\"('H', 'Sr')\",OTHERS,True\nmp-1096013,\"{'Ta': 2.0, 'Mn': 1.0, 'Fe': 1.0}\",\"('Fe', 'Mn', 'Ta')\",OTHERS,True\nmp-18732,\"{'O': 6.0, 'Ti': 2.0, 'Ni': 2.0}\",\"('Ni', 'O', 'Ti')\",OTHERS,True\nmp-4135,\"{'O': 12.0, 'P': 4.0, 'Rb': 4.0}\",\"('O', 'P', 'Rb')\",OTHERS,True\nmp-20821,\"{'Ga': 3.0, 'Np': 1.0}\",\"('Ga', 'Np')\",OTHERS,True\nmp-18838,\"{'O': 16.0, 'F': 12.0, 'S': 4.0, 'K': 8.0, 'Mn': 4.0}\",\"('F', 'K', 'Mn', 'O', 'S')\",OTHERS,True\nmp-1103779,\"{'Mg': 2.0, 'Cr': 4.0, 'O': 8.0}\",\"('Cr', 'Mg', 'O')\",OTHERS,True\nmp-22966,\"{'C': 2.0, 'F': 4.0, 'Cl': 4.0}\",\"('C', 'Cl', 'F')\",OTHERS,True\nmp-30560,\"{'Co': 1.0, 'Nb': 1.0, 'Sn': 1.0}\",\"('Co', 'Nb', 'Sn')\",OTHERS,True\nmp-19377,\"{'Li': 2.0, 'O': 12.0, 'Mo': 2.0, 'La': 4.0}\",\"('La', 'Li', 'Mo', 'O')\",OTHERS,True\nmp-865508,\"{'U': 2.0, 'Ni': 12.0, 'As': 7.0}\",\"('As', 'Ni', 'U')\",OTHERS,True\nmp-1224129,\"{'In': 1.0, 'Cu': 1.0, 'Sn': 1.0, 'Se': 4.0}\",\"('Cu', 'In', 'Se', 'Sn')\",OTHERS,True\nmp-17153,\"{'Te': 16.0, 'Ba': 4.0, 'Tb': 8.0}\",\"('Ba', 'Tb', 'Te')\",OTHERS,True\nmp-1223740,\"{'K': 4.0, 'H': 16.0, 'Pb': 4.0, 'I': 12.0, 'O': 8.0}\",\"('H', 'I', 'K', 'O', 'Pb')\",OTHERS,True\nmp-1075430,\"{'Mg': 10.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-1228981,\"{'Ba': 10.0, 'Fe': 8.0, 'Pt': 2.0, 'Cl': 2.0, 'O': 25.0}\",\"('Ba', 'Cl', 'Fe', 'O', 'Pt')\",OTHERS,True\nmp-1190043,\"{'Tl': 2.0, 'Cr': 6.0, 'Se': 10.0}\",\"('Cr', 'Se', 'Tl')\",OTHERS,True\nmp-2233,\"{'Ag': 2.0, 'Th': 4.0}\",\"('Ag', 'Th')\",OTHERS,True\nmp-990086,\"{'Mo': 18.0, 'H': 2.0, 'S': 36.0}\",\"('H', 'Mo', 'S')\",OTHERS,True\nmp-1012835,\"{'Sm': 2.0, 'Cu': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Cu', 'O', 'Sm', 'W')\",OTHERS,True\nmvc-9555,\"{'Mg': 4.0, 'Ti': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Mg', 'O', 'P', 'Ti')\",OTHERS,True\nmp-1198511,\"{'Tb': 6.0, 'Co': 8.0, 'Ge': 26.0}\",\"('Co', 'Ge', 'Tb')\",OTHERS,True\nmp-1202667,\"{'Ni': 4.0, 'P': 8.0, 'H': 104.0, 'C': 32.0, 'S': 16.0, 'N': 8.0, 'O': 8.0}\",\"('C', 'H', 'N', 'Ni', 'O', 'P', 'S')\",OTHERS,True\nmp-1194543,\"{'K': 8.0, 'Ge': 2.0, 'Se': 8.0, 'O': 8.0}\",\"('Ge', 'K', 'O', 'Se')\",OTHERS,True\nmp-1111493,\"{'K': 3.0, 'Er': 1.0, 'Cl': 6.0}\",\"('Cl', 'Er', 'K')\",OTHERS,True\nmp-1186864,\"{'Rb': 3.0, 'Pm': 1.0}\",\"('Pm', 'Rb')\",OTHERS,True\nmp-695941,\"{'Ag': 12.0, 'H': 52.0, 'Se': 4.0, 'N': 16.0, 'O': 20.0}\",\"('Ag', 'H', 'N', 'O', 'Se')\",OTHERS,True\nAl 71.5 Cu 8.5 Ru 20,\"{'Al': 71.5, 'Cu': 8.5, 'Ru': 20.0}\",\"('Al', 'Cu', 'Ru')\",AC,True\nmp-1186732,\"{'Pr': 6.0, 'Pa': 2.0}\",\"('Pa', 'Pr')\",OTHERS,True\nmp-772170,\"{'Ca': 4.0, 'La': 4.0, 'I': 20.0}\",\"('Ca', 'I', 'La')\",OTHERS,True\nmp-1214216,\"{'C': 36.0, 'Br': 2.0, 'F': 26.0}\",\"('Br', 'C', 'F')\",OTHERS,True\nmp-760034,\"{'Li': 6.0, 'V': 3.0, 'Fe': 3.0, 'P': 6.0, 'H': 6.0, 'O': 30.0}\",\"('Fe', 'H', 'Li', 'O', 'P', 'V')\",OTHERS,True\nmp-1186185,\"{'Na': 1.0, 'Tl': 2.0, 'In': 1.0}\",\"('In', 'Na', 'Tl')\",OTHERS,True\nmp-764566,\"{'Li': 1.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-1181558,\"{'Cs': 1.0, 'Zr': 1.0, 'Cu': 3.0, 'Se': 4.0}\",\"('Cs', 'Cu', 'Se', 'Zr')\",OTHERS,True\nmp-1220728,\"{'Na': 1.0, 'Li': 1.0, 'As': 2.0, 'S': 4.0}\",\"('As', 'Li', 'Na', 'S')\",OTHERS,True\nmp-1221452,\"{'Na': 1.0, 'Fe': 6.0, 'H': 12.0, 'S': 4.0, 'O': 29.0}\",\"('Fe', 'H', 'Na', 'O', 'S')\",OTHERS,True\nmp-1118832,\"{'Ca': 4.0, 'W': 2.0, 'N': 4.0}\",\"('Ca', 'N', 'W')\",OTHERS,True\nmp-1200080,\"{'Pr': 6.0, 'Rh': 8.0, 'Pb': 26.0}\",\"('Pb', 'Pr', 'Rh')\",OTHERS,True\nmp-570644,\"{'Ba': 14.0, 'Na': 21.0, 'Ca': 1.0, 'N': 6.0}\",\"('Ba', 'Ca', 'N', 'Na')\",OTHERS,True\nmp-1074263,\"{'Mg': 16.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-1096345,\"{'Al': 1.0, 'Ga': 1.0, 'Ru': 2.0}\",\"('Al', 'Ga', 'Ru')\",OTHERS,True\nmp-556053,\"{'Te': 4.0, 'C': 32.0, 'O': 16.0, 'F': 48.0}\",\"('C', 'F', 'O', 'Te')\",OTHERS,True\nmp-1246774,\"{'Si': 14.0, 'Ni': 2.0, 'N': 20.0}\",\"('N', 'Ni', 'Si')\",OTHERS,True\nmp-975275,\"{'Rb': 1.0, 'Na': 2.0, 'Sb': 1.0}\",\"('Na', 'Rb', 'Sb')\",OTHERS,True\nmp-632490,\"{'Eu': 8.0, 'Sn': 4.0, 'S': 16.0}\",\"('Eu', 'S', 'Sn')\",OTHERS,True\nmp-3523,\"{'O': 16.0, 'Sr': 4.0, 'Gd': 8.0}\",\"('Gd', 'O', 'Sr')\",OTHERS,True\nmp-31104,\"{'K': 16.0, 'Bi': 16.0}\",\"('Bi', 'K')\",OTHERS,True\nmp-1224521,\"{'Ho': 12.0, 'Si': 5.0, 'S': 28.0}\",\"('Ho', 'S', 'Si')\",OTHERS,True\nmp-1195463,\"{'U': 4.0, 'Si': 24.0, 'H': 216.0, 'C': 72.0, 'N': 12.0, 'F': 4.0}\",\"('C', 'F', 'H', 'N', 'Si', 'U')\",OTHERS,True\nmp-1197109,\"{'Fe': 4.0, 'S': 4.0, 'O': 44.0}\",\"('Fe', 'O', 'S')\",OTHERS,True\nmp-1215271,\"{'Zr': 2.0, 'Fe': 2.0, 'Co': 2.0}\",\"('Co', 'Fe', 'Zr')\",OTHERS,True\nmp-1215747,\"{'Yb': 4.0, 'S': 7.0}\",\"('S', 'Yb')\",OTHERS,True\nmp-866140,\"{'Ti': 1.0, 'Ga': 1.0, 'Pd': 2.0}\",\"('Ga', 'Pd', 'Ti')\",OTHERS,True\nmp-28432,\"{'Cd': 4.0, 'I': 14.0, 'Tl': 6.0}\",\"('Cd', 'I', 'Tl')\",OTHERS,True\nmp-1095001,\"{'Ca': 3.0, 'Zn': 3.0}\",\"('Ca', 'Zn')\",OTHERS,True\nmp-556418,\"{'Al': 2.0, 'S': 2.0, 'Cl': 6.0, 'O': 4.0}\",\"('Al', 'Cl', 'O', 'S')\",OTHERS,True\nmp-1039958,\"{'Ce': 1.0, 'Mg': 30.0, 'B': 1.0, 'O': 32.0}\",\"('B', 'Ce', 'Mg', 'O')\",OTHERS,True\nAl 75 Mn 20 Pd 5,\"{'Al': 75.0, 'Mn': 20.0, 'Pd': 5.0}\",\"('Al', 'Mn', 'Pd')\",AC,True\nmp-1218486,\"{'Sr': 2.0, 'Y': 1.0, 'Tl': 1.0, 'Cu': 2.0, 'O': 7.0}\",\"('Cu', 'O', 'Sr', 'Tl', 'Y')\",OTHERS,True\nmp-7163,{'Tb': 1.0},\"('Tb',)\",OTHERS,True\nmp-1112936,\"{'Cs': 2.0, 'Ta': 1.0, 'Ag': 1.0, 'Br': 6.0}\",\"('Ag', 'Br', 'Cs', 'Ta')\",OTHERS,True\nmp-769391,\"{'Ba': 8.0, 'Zr': 2.0, 'O': 12.0}\",\"('Ba', 'O', 'Zr')\",OTHERS,True\nmp-752857,\"{'V': 3.0, 'O': 1.0, 'F': 11.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmp-774838,\"{'Li': 2.0, 'Y': 14.0, 'Ti': 14.0, 'S': 14.0, 'O': 35.0}\",\"('Li', 'O', 'S', 'Ti', 'Y')\",OTHERS,True\nmp-3998,\"{'O': 8.0, 'La': 2.0, 'Ta': 2.0}\",\"('La', 'O', 'Ta')\",OTHERS,True\nmp-1223620,\"{'La': 12.0, 'Ge': 5.0, 'S': 28.0}\",\"('Ge', 'La', 'S')\",OTHERS,True\nmp-551131,\"{'Co': 4.0, 'As': 2.0, 'Cl': 2.0, 'O': 8.0}\",\"('As', 'Cl', 'Co', 'O')\",OTHERS,True\nmp-640381,\"{'Yb': 4.0, 'Cu': 4.0, 'S': 8.0}\",\"('Cu', 'S', 'Yb')\",OTHERS,True\nmp-1101091,\"{'Dy': 3.0, 'In': 4.0, 'Co': 2.0}\",\"('Co', 'Dy', 'In')\",OTHERS,True\nmp-1459,\"{'N': 1.0, 'Ta': 1.0}\",\"('N', 'Ta')\",OTHERS,True\nmp-342,\"{'Te': 1.0, 'Sm': 1.0}\",\"('Sm', 'Te')\",OTHERS,True\nmp-1245418,\"{'Cd': 4.0, 'Sn': 4.0, 'N': 8.0}\",\"('Cd', 'N', 'Sn')\",OTHERS,True\nmp-1209320,\"{'Rb': 4.0, 'Ag': 4.0, 'Te': 4.0, 'S': 12.0}\",\"('Ag', 'Rb', 'S', 'Te')\",OTHERS,True\nmp-865908,\"{'Yb': 2.0, 'Hg': 1.0, 'Pb': 1.0}\",\"('Hg', 'Pb', 'Yb')\",OTHERS,True\nmp-766123,\"{'Ce': 8.0, 'Th': 2.0, 'O': 20.0}\",\"('Ce', 'O', 'Th')\",OTHERS,True\nmp-973834,\"{'Pd': 1.0, 'Au': 3.0}\",\"('Au', 'Pd')\",OTHERS,True\nmp-772199,\"{'Rb': 18.0, 'Cl': 6.0, 'O': 6.0}\",\"('Cl', 'O', 'Rb')\",OTHERS,True\nmp-1200191,\"{'Ga': 42.0, 'Rh': 8.0}\",\"('Ga', 'Rh')\",OTHERS,True\nmp-7711,\"{'O': 1.0, 'Ag': 2.0}\",\"('Ag', 'O')\",OTHERS,True\nmvc-12018,\"{'Ta': 4.0, 'Mn': 2.0, 'Zn': 3.0, 'O': 16.0}\",\"('Mn', 'O', 'Ta', 'Zn')\",OTHERS,True\nmp-604594,\"{'Ce': 4.0, 'In': 10.0, 'Pd': 8.0}\",\"('Ce', 'In', 'Pd')\",OTHERS,True\nmp-779538,\"{'Fe': 10.0, 'O': 14.0, 'F': 6.0}\",\"('F', 'Fe', 'O')\",OTHERS,True\nmp-1210680,\"{'Mg': 4.0, 'Pb': 8.0}\",\"('Mg', 'Pb')\",OTHERS,True\nmp-605809,\"{'Ba': 22.0, 'In': 12.0, 'O': 6.0}\",\"('Ba', 'In', 'O')\",OTHERS,True\nmp-631322,\"{'K': 1.0, 'Sn': 1.0, 'Os': 1.0}\",\"('K', 'Os', 'Sn')\",OTHERS,True\nmp-1211509,\"{'K': 4.0, 'Sm': 8.0, 'I': 20.0}\",\"('I', 'K', 'Sm')\",OTHERS,True\nmp-1196241,\"{'Sr': 8.0, 'Be': 8.0, 'H': 32.0, 'O': 32.0}\",\"('Be', 'H', 'O', 'Sr')\",OTHERS,True\nmp-755545,\"{'Li': 6.0, 'Fe': 1.0, 'O': 4.0, 'F': 2.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-1222405,\"{'Li': 1.0, 'Cd': 3.0}\",\"('Cd', 'Li')\",OTHERS,True\nmp-1194603,\"{'Mn': 8.0, 'Bi': 8.0, 'O': 24.0}\",\"('Bi', 'Mn', 'O')\",OTHERS,True\nmp-697126,\"{'Ca': 4.0, 'H': 12.0, 'Rh': 3.0}\",\"('Ca', 'H', 'Rh')\",OTHERS,True\nmp-1204339,\"{'U': 2.0, 'Cr': 8.0, 'H': 36.0, 'O': 48.0}\",\"('Cr', 'H', 'O', 'U')\",OTHERS,True\nmp-19872,\"{'Al': 2.0, 'Cu': 1.0, 'U': 1.0}\",\"('Al', 'Cu', 'U')\",OTHERS,True\nmp-1095163,\"{'Pt': 1.0, 'Cl': 6.0, 'O': 2.0}\",\"('Cl', 'O', 'Pt')\",OTHERS,True\nmp-19766,\"{'Pd': 3.0, 'Sn': 3.0, 'Ce': 3.0}\",\"('Ce', 'Pd', 'Sn')\",OTHERS,True\nmp-1219205,\"{'Sm': 6.0, 'S': 2.0, 'O': 2.0, 'F': 10.0}\",\"('F', 'O', 'S', 'Sm')\",OTHERS,True\nmp-1104836,\"{'Re': 2.0, 'Cl': 6.0, 'O': 6.0}\",\"('Cl', 'O', 'Re')\",OTHERS,True\nmp-1079374,\"{'Th': 2.0, 'Ta': 2.0, 'N': 6.0}\",\"('N', 'Ta', 'Th')\",OTHERS,True\nmp-1215234,\"{'Zr': 2.0, 'Mn': 2.0, 'Ni': 2.0}\",\"('Mn', 'Ni', 'Zr')\",OTHERS,True\nmvc-4357,\"{'Ca': 4.0, 'Ta': 2.0, 'V': 2.0, 'O': 12.0}\",\"('Ca', 'O', 'Ta', 'V')\",OTHERS,True\nmp-761156,\"{'Li': 3.0, 'La': 5.0, 'Ti': 6.0, 'Nb': 2.0, 'O': 26.0}\",\"('La', 'Li', 'Nb', 'O', 'Ti')\",OTHERS,True\nmp-1185991,\"{'Mn': 1.0, 'Cd': 3.0}\",\"('Cd', 'Mn')\",OTHERS,True\nmp-504922,\"{'U': 4.0, 'Pb': 4.0, 'O': 16.0}\",\"('O', 'Pb', 'U')\",OTHERS,True\nmp-559335,\"{'Zn': 2.0, 'Ag': 4.0, 'C': 8.0, 'S': 8.0, 'N': 8.0}\",\"('Ag', 'C', 'N', 'S', 'Zn')\",OTHERS,True\nmp-1221638,\"{'Mn': 1.0, 'Cr': 3.0, 'Te': 4.0}\",\"('Cr', 'Mn', 'Te')\",OTHERS,True\nmp-19217,\"{'O': 18.0, 'Mn': 6.0, 'Er': 6.0}\",\"('Er', 'Mn', 'O')\",OTHERS,True\nmp-707494,\"{'B': 44.0, 'H': 36.0, 'C': 4.0, 'Br': 24.0, 'O': 16.0}\",\"('B', 'Br', 'C', 'H', 'O')\",OTHERS,True\nmp-1186219,\"{'Nb': 6.0, 'Se': 2.0}\",\"('Nb', 'Se')\",OTHERS,True\nmp-568591,\"{'La': 6.0, 'C': 2.0, 'I': 10.0}\",\"('C', 'I', 'La')\",OTHERS,True\nmp-1097181,\"{'Zr': 1.0, 'Sc': 1.0, 'Zn': 2.0}\",\"('Sc', 'Zn', 'Zr')\",OTHERS,True\nmp-604368,\"{'K': 4.0, 'Na': 2.0, 'V': 10.0, 'H': 20.0, 'O': 38.0}\",\"('H', 'K', 'Na', 'O', 'V')\",OTHERS,True\nmp-1202855,\"{'C': 20.0, 'I': 6.0, 'N': 8.0}\",\"('C', 'I', 'N')\",OTHERS,True\nmp-1094064,\"{'Sb': 1.0, 'H': 3.0}\",\"('H', 'Sb')\",OTHERS,True\nTa 97 Te 60,\"{'Ta': 97.0, 'Te': 60.0}\",\"('Ta', 'Te')\",AC,True\nmp-1097218,\"{'Li': 1.0, 'Cd': 2.0, 'In': 1.0}\",\"('Cd', 'In', 'Li')\",OTHERS,True\nmp-759611,\"{'Ba': 4.0, 'Li': 4.0, 'Ca': 4.0, 'V': 4.0, 'P': 8.0, 'O': 36.0}\",\"('Ba', 'Ca', 'Li', 'O', 'P', 'V')\",OTHERS,True\nmp-1227942,\"{'Ba': 1.0, 'Ga': 1.0, 'Ge': 1.0}\",\"('Ba', 'Ga', 'Ge')\",OTHERS,True\nmp-1175397,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1102504,\"{'Co': 4.0, 'P': 4.0, 'W': 4.0}\",\"('Co', 'P', 'W')\",OTHERS,True\nmp-559366,\"{'P': 6.0, 'Br': 6.0, 'N': 6.0, 'F': 6.0}\",\"('Br', 'F', 'N', 'P')\",OTHERS,True\nmp-1204560,\"{'Rb': 4.0, 'Ce': 2.0, 'N': 10.0, 'O': 38.0}\",\"('Ce', 'N', 'O', 'Rb')\",OTHERS,True\nmp-1214450,\"{'Ba': 1.0, 'Nb': 6.0, 'H': 1.0, 'O': 16.0}\",\"('Ba', 'H', 'Nb', 'O')\",OTHERS,True\nmp-554732,\"{'Rb': 4.0, 'Sb': 4.0, 'S': 4.0, 'O': 16.0, 'F': 8.0}\",\"('F', 'O', 'Rb', 'S', 'Sb')\",OTHERS,True\nmp-1202662,\"{'Sc': 8.0, 'Si': 16.0, 'W': 12.0}\",\"('Sc', 'Si', 'W')\",OTHERS,True\nmp-1029702,\"{'Mg': 4.0, 'Ti': 4.0, 'N': 8.0}\",\"('Mg', 'N', 'Ti')\",OTHERS,True\nmp-1207402,\"{'Zr': 12.0, 'Al': 4.0, 'Fe': 2.0, 'H': 20.0}\",\"('Al', 'Fe', 'H', 'Zr')\",OTHERS,True\nmp-1211034,\"{'Mg': 4.0, 'Si': 8.0, 'O': 22.0}\",\"('Mg', 'O', 'Si')\",OTHERS,True\nmp-1247565,\"{'Sb': 16.0, 'Te': 12.0, 'N': 8.0}\",\"('N', 'Sb', 'Te')\",OTHERS,True\nmp-773137,\"{'K': 2.0, 'Ca': 2.0, 'Bi': 2.0}\",\"('Bi', 'Ca', 'K')\",OTHERS,True\nmp-1079270,\"{'Tm': 2.0, 'Ni': 1.0, 'Sn': 6.0}\",\"('Ni', 'Sn', 'Tm')\",OTHERS,True\nmp-31143,\"{'Er': 8.0, 'Sn': 4.0, 'Au': 8.0}\",\"('Au', 'Er', 'Sn')\",OTHERS,True\nmp-554673,\"{'K': 4.0, 'Zn': 4.0, 'B': 4.0, 'P': 8.0, 'O': 32.0}\",\"('B', 'K', 'O', 'P', 'Zn')\",OTHERS,True\nmp-1208274,\"{'Th': 6.0, 'Si': 24.0, 'Ru': 8.0}\",\"('Ru', 'Si', 'Th')\",OTHERS,True\nmp-1193963,\"{'Mg': 8.0, 'Si': 4.0, 'S': 16.0}\",\"('Mg', 'S', 'Si')\",OTHERS,True\nmp-761209,\"{'Li': 6.0, 'Fe': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-24211,\"{'Co': 2.0, 'H': 16.0, 'I': 4.0, 'O': 20.0}\",\"('Co', 'H', 'I', 'O')\",OTHERS,True\nmp-1179383,\"{'Ti': 4.0, 'Si': 8.0, 'C': 12.0, 'N': 8.0, 'Cl': 20.0}\",\"('C', 'Cl', 'N', 'Si', 'Ti')\",OTHERS,True\nmp-1027053,\"{'Te': 4.0, 'Mo': 3.0, 'W': 1.0, 'Se': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,True\nmp-972591,\"{'Sm': 1.0, 'Mg': 16.0, 'Al': 12.0}\",\"('Al', 'Mg', 'Sm')\",OTHERS,True\nmp-1177772,\"{'Li': 3.0, 'Cr': 2.0, 'Fe': 3.0, 'O': 10.0}\",\"('Cr', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-1224003,\"{'Ho': 3.0, 'Mn': 3.0, 'Ga': 2.0, 'Si': 1.0}\",\"('Ga', 'Ho', 'Mn', 'Si')\",OTHERS,True\nmp-1219252,\"{'Sc': 1.0, 'Tl': 1.0, 'F': 6.0}\",\"('F', 'Sc', 'Tl')\",OTHERS,True\nmp-559879,\"{'P': 4.0, 'S': 8.0, 'N': 4.0, 'Cl': 24.0, 'O': 16.0}\",\"('Cl', 'N', 'O', 'P', 'S')\",OTHERS,True\nmp-1210257,\"{'Na': 6.0, 'Ti': 2.0, 'F': 12.0}\",\"('F', 'Na', 'Ti')\",OTHERS,True\nZn 77 Mg 18 Zr 5,\"{'Zn': 77.0, 'Mg': 18.0, 'Zr': 5.0}\",\"('Mg', 'Zn', 'Zr')\",AC,True\nmp-1075111,\"{'Mg': 6.0, 'Si': 8.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-675211,\"{'W': 7.0, 'O': 21.0}\",\"('O', 'W')\",OTHERS,True\nmp-1225635,\"{'Fe': 8.0, 'Co': 2.0, 'Bi': 10.0, 'O': 30.0}\",\"('Bi', 'Co', 'Fe', 'O')\",OTHERS,True\nmp-1112599,\"{'Cs': 2.0, 'K': 1.0, 'Au': 1.0, 'F': 6.0}\",\"('Au', 'Cs', 'F', 'K')\",OTHERS,True\nmp-777673,\"{'Li': 8.0, 'Fe': 4.0, 'F': 16.0}\",\"('F', 'Fe', 'Li')\",OTHERS,True\nmp-758671,\"{'Li': 4.0, 'Mn': 4.0, 'P': 12.0, 'O': 36.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,True\nmp-1095043,\"{'Sc': 3.0, 'Os': 1.0, 'C': 4.0}\",\"('C', 'Os', 'Sc')\",OTHERS,True\nmp-1245772,\"{'Na': 4.0, 'Mg': 4.0, 'N': 4.0}\",\"('Mg', 'N', 'Na')\",OTHERS,True\nmp-36216,\"{'Ag': 4.0, 'S': 2.0}\",\"('Ag', 'S')\",OTHERS,True\nmp-1246241,\"{'Fe': 8.0, 'Ru': 2.0, 'N': 8.0}\",\"('Fe', 'N', 'Ru')\",OTHERS,True\nmp-771359,\"{'Cu': 16.0, 'O': 24.0}\",\"('Cu', 'O')\",OTHERS,True\nmp-642281,\"{'Sr': 21.0, 'In': 8.0, 'Pb': 7.0}\",\"('In', 'Pb', 'Sr')\",OTHERS,True\nmp-32833,\"{'Ho': 24.0, 'Se': 44.0}\",\"('Ho', 'Se')\",OTHERS,True\nmp-861600,\"{'Ho': 2.0, 'Zn': 1.0, 'In': 1.0}\",\"('Ho', 'In', 'Zn')\",OTHERS,True\nmp-1008733,{'Ge': 2.0},\"('Ge',)\",OTHERS,True\nmp-1076337,\"{'Ba': 2.0, 'Sr': 6.0, 'Ti': 7.0, 'Mn': 1.0, 'O': 24.0}\",\"('Ba', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,True\nmp-1198309,\"{'Sc': 40.0, 'Os': 8.0, 'Cl': 72.0}\",\"('Cl', 'Os', 'Sc')\",OTHERS,True\nmp-1025314,\"{'Mn': 1.0, 'Al': 2.0, 'S': 4.0}\",\"('Al', 'Mn', 'S')\",OTHERS,True\nmp-28918,\"{'W': 2.0, 'Sb': 4.0, 'O': 12.0}\",\"('O', 'Sb', 'W')\",OTHERS,True\nmp-1213579,\"{'Gd': 8.0, 'Sc': 12.0, 'Si': 16.0}\",\"('Gd', 'Sc', 'Si')\",OTHERS,True\nmp-766514,\"{'Li': 8.0, 'Fe': 6.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-1183872,\"{'Ce': 3.0, 'Cu': 1.0}\",\"('Ce', 'Cu')\",OTHERS,True\nmp-18890,\"{'Ca': 2.0, 'Fe': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Ca', 'Fe', 'O', 'Si')\",OTHERS,True\nmp-1188603,\"{'La': 1.0, 'Sb': 12.0, 'Ru': 4.0}\",\"('La', 'Ru', 'Sb')\",OTHERS,True\nmp-1211019,\"{'Na': 6.0, 'Mg': 10.0, 'Si': 16.0, 'H': 4.0, 'O': 48.0}\",\"('H', 'Mg', 'Na', 'O', 'Si')\",OTHERS,True\nmp-697593,\"{'Te': 28.0, 'W': 4.0, 'Cl': 20.0, 'O': 4.0}\",\"('Cl', 'O', 'Te', 'W')\",OTHERS,True\nmp-24065,\"{'H': 20.0, 'B': 4.0, 'O': 18.0, 'Ca': 2.0}\",\"('B', 'Ca', 'H', 'O')\",OTHERS,True\nmp-760183,\"{'Li': 10.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-865280,\"{'Nb': 1.0, 'Al': 1.0, 'Fe': 2.0}\",\"('Al', 'Fe', 'Nb')\",OTHERS,True\nmp-866712,\"{'Rb': 2.0, 'Mn': 2.0, 'P': 6.0, 'H': 2.0, 'O': 20.0}\",\"('H', 'Mn', 'O', 'P', 'Rb')\",OTHERS,True\nmp-775429,\"{'Ba': 4.0, 'Li': 1.0, 'Bi': 3.0, 'O': 11.0}\",\"('Ba', 'Bi', 'Li', 'O')\",OTHERS,True\nmp-2102,\"{'Ge': 4.0, 'Pr': 4.0}\",\"('Ge', 'Pr')\",OTHERS,True\nmp-1225821,\"{'Cu': 2.0, 'P': 2.0, 'O': 7.0}\",\"('Cu', 'O', 'P')\",OTHERS,True\nmp-622570,\"{'Ti': 4.0, 'Cu': 6.0}\",\"('Cu', 'Ti')\",OTHERS,True\nmp-757962,\"{'Li': 6.0, 'Co': 6.0, 'P': 6.0, 'O': 24.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,True\nmp-10180,\"{'Li': 2.0, 'Pd': 1.0, 'Sb': 1.0}\",\"('Li', 'Pd', 'Sb')\",OTHERS,True\nmp-1078870,\"{'U': 3.0, 'Ga': 3.0, 'Rh': 3.0}\",\"('Ga', 'Rh', 'U')\",OTHERS,True\nmp-1104125,\"{'Y': 4.0, 'Cd': 2.0, 'Se': 8.0}\",\"('Cd', 'Se', 'Y')\",OTHERS,True\nmp-1247481,\"{'Li': 4.0, 'Mn': 4.0, 'N': 4.0}\",\"('Li', 'Mn', 'N')\",OTHERS,True\nmp-768385,\"{'Ba': 8.0, 'Y': 4.0, 'Br': 28.0}\",\"('Ba', 'Br', 'Y')\",OTHERS,True\nmp-1179389,\"{'Te': 2.0, 'C': 8.0, 'S': 8.0, 'N': 16.0, 'Cl': 4.0, 'O': 4.0}\",\"('C', 'Cl', 'N', 'O', 'S', 'Te')\",OTHERS,True\nmp-2850,\"{'B': 4.0, 'Os': 2.0}\",\"('B', 'Os')\",OTHERS,True\nmp-9275,\"{'O': 38.0, 'Ta': 12.0, 'Th': 4.0}\",\"('O', 'Ta', 'Th')\",OTHERS,True\nmp-1190622,\"{'Ba': 4.0, 'Cr': 4.0, 'O': 16.0}\",\"('Ba', 'Cr', 'O')\",OTHERS,True\nmp-972300,\"{'Sr': 3.0, 'Lu': 1.0}\",\"('Lu', 'Sr')\",OTHERS,True\nmp-1190981,\"{'Sr': 8.0, 'Zn': 4.0, 'S': 12.0}\",\"('S', 'Sr', 'Zn')\",OTHERS,True\nmp-30677,\"{'Ga': 20.0, 'Tm': 12.0}\",\"('Ga', 'Tm')\",OTHERS,True\nmp-557755,\"{'Ba': 6.0, 'Cr': 4.0, 'Mo': 2.0, 'O': 18.0}\",\"('Ba', 'Cr', 'Mo', 'O')\",OTHERS,True\nmp-642834,\"{'Ba': 2.0, 'H': 10.0, 'Cl': 2.0, 'O': 6.0}\",\"('Ba', 'Cl', 'H', 'O')\",OTHERS,True\nmp-754462,\"{'Sb': 2.0, 'Te': 4.0, 'F': 12.0}\",\"('F', 'Sb', 'Te')\",OTHERS,True\nmp-1101328,\"{'V': 18.0, 'O': 44.0}\",\"('O', 'V')\",OTHERS,True\nmp-1192903,\"{'Bi': 6.0, 'As': 4.0, 'O': 20.0}\",\"('As', 'Bi', 'O')\",OTHERS,True\nmp-976405,\"{'Na': 1.0, 'Er': 3.0}\",\"('Er', 'Na')\",OTHERS,True\nmp-510638,\"{'Ga': 2.0, 'Mn': 2.0, 'F': 10.0, 'O': 4.0, 'H': 8.0}\",\"('F', 'Ga', 'H', 'Mn', 'O')\",OTHERS,True\nmp-1112215,\"{'K': 2.0, 'Tm': 1.0, 'Cu': 1.0, 'Cl': 6.0}\",\"('Cl', 'Cu', 'K', 'Tm')\",OTHERS,True\nmp-1029458,\"{'Zn': 4.0, 'Cr': 2.0, 'N': 6.0}\",\"('Cr', 'N', 'Zn')\",OTHERS,True\nmp-3772,\"{'Ga': 2.0, 'Se': 4.0, 'Cd': 1.0}\",\"('Cd', 'Ga', 'Se')\",OTHERS,True\nmp-10444,\"{'O': 10.0, 'Al': 4.0, 'Ca': 4.0}\",\"('Al', 'Ca', 'O')\",OTHERS,True\nmp-773707,\"{'Li': 4.0, 'Ti': 3.0, 'Mn': 2.0, 'V': 3.0, 'O': 16.0}\",\"('Li', 'Mn', 'O', 'Ti', 'V')\",OTHERS,True\nmp-1177635,\"{'Li': 3.0, 'Mn': 2.0, 'Sb': 1.0, 'O': 6.0}\",\"('Li', 'Mn', 'O', 'Sb')\",OTHERS,True\nmp-756151,\"{'Li': 4.0, 'Cr': 5.0, 'W': 1.0, 'O': 12.0}\",\"('Cr', 'Li', 'O', 'W')\",OTHERS,True\nmp-1220278,\"{'Nd': 4.0, 'Fe': 4.0, 'Co': 12.0, 'B': 3.0, 'C': 1.0}\",\"('B', 'C', 'Co', 'Fe', 'Nd')\",OTHERS,True\nmp-1213404,\"{'Dy': 2.0, 'N': 6.0, 'O': 28.0}\",\"('Dy', 'N', 'O')\",OTHERS,True\nmp-1206434,\"{'Nd': 1.0, 'Ga': 2.0, 'Cu': 2.0}\",\"('Cu', 'Ga', 'Nd')\",OTHERS,True\nmp-1029069,\"{'Mo': 2.0, 'W': 2.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se', 'W')\",OTHERS,True\nmp-1225998,\"{'Co': 1.0, 'Pt': 1.0}\",\"('Co', 'Pt')\",OTHERS,True\nmp-977129,\"{'Hg': 2.0, 'Pd': 6.0}\",\"('Hg', 'Pd')\",OTHERS,True\nmp-1212660,\"{'Ga': 2.0, 'Cu': 2.0, 'Br': 8.0}\",\"('Br', 'Cu', 'Ga')\",OTHERS,True\nmp-722270,\"{'Zr': 4.0, 'H': 28.0, 'C': 4.0, 'N': 16.0, 'F': 20.0}\",\"('C', 'F', 'H', 'N', 'Zr')\",OTHERS,True\nmp-976588,\"{'Ho': 1.0, 'Th': 3.0}\",\"('Ho', 'Th')\",OTHERS,True\nmp-769616,\"{'Na': 4.0, 'Cr': 2.0, 'P': 2.0, 'C': 2.0, 'O': 14.0}\",\"('C', 'Cr', 'Na', 'O', 'P')\",OTHERS,True\nmp-1095493,\"{'Cd': 4.0, 'Se': 8.0}\",\"('Cd', 'Se')\",OTHERS,True\nmp-1223773,\"{'K': 5.0, 'Bi': 4.0}\",\"('Bi', 'K')\",OTHERS,True\nmp-982557,\"{'Ho': 2.0, 'Ga': 6.0}\",\"('Ga', 'Ho')\",OTHERS,True\nmp-1190171,{'C': 16.0},\"('C',)\",OTHERS,True\nmp-673096,\"{'Li': 3.0, 'Sn': 1.0, 'P': 6.0, 'O': 18.0}\",\"('Li', 'O', 'P', 'Sn')\",OTHERS,True\nmp-1189833,\"{'Yb': 4.0, 'Si': 4.0, 'Pd': 8.0}\",\"('Pd', 'Si', 'Yb')\",OTHERS,True\nmp-1103785,\"{'Pr': 3.0, 'Al': 11.0}\",\"('Al', 'Pr')\",OTHERS,True\nmp-1245450,\"{'Ca': 32.0, 'Mn': 12.0, 'N': 36.0}\",\"('Ca', 'Mn', 'N')\",OTHERS,True\nmp-1002223,\"{'Dy': 1.0, 'P': 1.0}\",\"('Dy', 'P')\",OTHERS,True\nmp-772087,\"{'Er': 6.0, 'Sb': 10.0, 'O': 24.0}\",\"('Er', 'O', 'Sb')\",OTHERS,True\nmp-862599,\"{'Li': 1.0, 'Er': 1.0, 'Au': 2.0}\",\"('Au', 'Er', 'Li')\",OTHERS,True\nmp-1225237,\"{'Ga': 2.0, 'P': 4.0, 'C': 6.0, 'N': 4.0, 'O': 16.0, 'F': 2.0}\",\"('C', 'F', 'Ga', 'N', 'O', 'P')\",OTHERS,True\nmp-1219858,\"{'Pr': 2.0, 'Si': 3.0, 'Ni': 1.0}\",\"('Ni', 'Pr', 'Si')\",OTHERS,True\nmp-1217980,\"{'Ta': 2.0, 'Be': 8.0, 'Mo': 2.0}\",\"('Be', 'Mo', 'Ta')\",OTHERS,True\nmp-1097071,\"{'Li': 1.0, 'Y': 2.0, 'Co': 1.0}\",\"('Co', 'Li', 'Y')\",OTHERS,True\nmp-1019575,\"{'Ca': 16.0, 'Al': 24.0, 'S': 4.0, 'O': 64.0}\",\"('Al', 'Ca', 'O', 'S')\",OTHERS,True\nNi 70.6 Cr 29.4,\"{'Ni': 70.6, 'Cr': 29.4}\",\"('Cr', 'Ni')\",QC,True\nmp-757131,\"{'Sn': 2.0, 'P': 8.0, 'O': 24.0}\",\"('O', 'P', 'Sn')\",OTHERS,True\nmp-774845,\"{'Li': 4.0, 'Ti': 2.0, 'Co': 3.0, 'Sn': 3.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'Sn', 'Ti')\",OTHERS,True\nmp-569471,\"{'U': 2.0, 'B': 4.0, 'C': 2.0}\",\"('B', 'C', 'U')\",OTHERS,True\nmp-1180514,\"{'Li': 1.0, 'Ti': 1.0, 'S': 2.0, 'O': 2.0}\",\"('Li', 'O', 'S', 'Ti')\",OTHERS,True\nmp-761229,\"{'Na': 8.0, 'Mn': 4.0, 'O': 12.0}\",\"('Mn', 'Na', 'O')\",OTHERS,True\nmp-18468,\"{'C': 4.0, 'Si': 4.0, 'Mn': 20.0}\",\"('C', 'Mn', 'Si')\",OTHERS,True\nmp-1219558,\"{'Sb': 2.0, 'Pb': 4.0, 'S': 4.0, 'I': 6.0}\",\"('I', 'Pb', 'S', 'Sb')\",OTHERS,True\nmp-778813,\"{'Li': 7.0, 'Mn': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1094397,\"{'Y': 6.0, 'Mg': 2.0}\",\"('Mg', 'Y')\",OTHERS,True\nmp-722900,\"{'Ca': 16.0, 'H': 48.0, 'N': 16.0, 'O': 80.0}\",\"('Ca', 'H', 'N', 'O')\",OTHERS,True\nmp-1246336,\"{'Li': 12.0, 'Rh': 4.0, 'N': 8.0}\",\"('Li', 'N', 'Rh')\",OTHERS,True\nmp-683875,\"{'Te': 4.0, 'S': 28.0, 'Br': 8.0}\",\"('Br', 'S', 'Te')\",OTHERS,True\nmp-510475,\"{'Y': 8.0, 'Cu': 8.0, 'O': 20.0}\",\"('Cu', 'O', 'Y')\",OTHERS,True\nmp-1176777,\"{'Li': 3.0, 'Co': 3.0, 'B': 3.0, 'O': 9.0}\",\"('B', 'Co', 'Li', 'O')\",OTHERS,True\nmp-781617,\"{'Li': 5.0, 'Mn': 6.0, 'B': 6.0, 'O': 18.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1215056,\"{'Ba': 3.0, 'Mn': 15.0, 'S': 18.0, 'O': 72.0}\",\"('Ba', 'Mn', 'O', 'S')\",OTHERS,True\nmp-11790,\"{'Cu': 4.0, 'Se': 8.0, 'La': 4.0}\",\"('Cu', 'La', 'Se')\",OTHERS,True\nmp-703476,\"{'P': 4.0, 'H': 32.0, 'N': 8.0, 'O': 14.0}\",\"('H', 'N', 'O', 'P')\",OTHERS,True\nmp-676923,\"{'Cd': 4.0, 'Bi': 12.0, 'O': 22.0}\",\"('Bi', 'Cd', 'O')\",OTHERS,True\nmp-677490,\"{'Li': 16.0, 'Nd': 12.0, 'Sb': 4.0, 'Te': 4.0, 'O': 48.0}\",\"('Li', 'Nd', 'O', 'Sb', 'Te')\",OTHERS,True\nmp-685969,\"{'Ag': 8.0, 'Ge': 1.0, 'Te': 6.0}\",\"('Ag', 'Ge', 'Te')\",OTHERS,True\nmp-1204057,\"{'Si': 72.0, 'O': 144.0}\",\"('O', 'Si')\",OTHERS,True\nmp-18628,\"{'B': 8.0, 'C': 20.0, 'Dy': 20.0}\",\"('B', 'C', 'Dy')\",OTHERS,True\nmp-1216793,\"{'U': 3.0, 'Ni': 3.0, 'P': 6.0}\",\"('Ni', 'P', 'U')\",OTHERS,True\nmp-557104,\"{'Li': 4.0, 'Al': 4.0, 'B': 8.0, 'O': 20.0}\",\"('Al', 'B', 'Li', 'O')\",OTHERS,True\nmp-636284,\"{'W': 4.0, 'O': 12.0}\",\"('O', 'W')\",OTHERS,True\nmp-757790,\"{'Li': 1.0, 'P': 2.0, 'W': 1.0, 'O': 8.0}\",\"('Li', 'O', 'P', 'W')\",OTHERS,True\nmp-1202256,\"{'K': 8.0, 'Cd': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Cd', 'K', 'O', 'P')\",OTHERS,True\nmp-766510,\"{'Li': 12.0, 'Mn': 1.0, 'Fe': 3.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Fe', 'Li', 'Mn', 'O', 'P')\",OTHERS,True\nmp-1212595,\"{'Ho': 4.0, 'Hf': 4.0, 'Mo': 14.0, 'O': 56.0}\",\"('Hf', 'Ho', 'Mo', 'O')\",OTHERS,True\nmp-1203775,\"{'Er': 6.0, 'Ge': 26.0, 'Ir': 8.0}\",\"('Er', 'Ge', 'Ir')\",OTHERS,True\nmp-1200490,\"{'Tb': 16.0, 'Al': 8.0, 'O': 36.0}\",\"('Al', 'O', 'Tb')\",OTHERS,True\nmp-20290,\"{'Tb': 2.0, 'Cu': 2.0, 'Pb': 2.0}\",\"('Cu', 'Pb', 'Tb')\",OTHERS,True\nmp-560402,\"{'U': 6.0, 'O': 16.0}\",\"('O', 'U')\",OTHERS,True\nmp-698171,\"{'Cu': 8.0, 'H': 14.0, 'S': 2.0, 'O': 22.0}\",\"('Cu', 'H', 'O', 'S')\",OTHERS,True\nmvc-13555,\"{'Cr': 1.0, 'S': 2.0}\",\"('Cr', 'S')\",OTHERS,True\nmp-1103228,\"{'Bi': 4.0, 'Ir': 4.0, 'Se': 4.0}\",\"('Bi', 'Ir', 'Se')\",OTHERS,True\nmvc-9427,\"{'Ca': 4.0, 'Ti': 8.0, 'P': 8.0, 'O': 32.0}\",\"('Ca', 'O', 'P', 'Ti')\",OTHERS,True\nmp-1176119,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-2656,\"{'S': 8.0, 'Nd': 6.0}\",\"('Nd', 'S')\",OTHERS,True\nmvc-13985,\"{'Sn': 2.0, 'F': 8.0}\",\"('F', 'Sn')\",OTHERS,True\nmp-1199220,\"{'Eu': 6.0, 'Rh': 8.0, 'Pb': 26.0}\",\"('Eu', 'Pb', 'Rh')\",OTHERS,True\nmp-697834,\"{'Ca': 4.0, 'La': 4.0, 'Mn': 7.0, 'Ni': 1.0, 'O': 24.0}\",\"('Ca', 'La', 'Mn', 'Ni', 'O')\",OTHERS,True\nmp-24595,\"{'H': 2.0, 'B': 5.0, 'O': 10.0, 'Cl': 1.0, 'Ca': 2.0}\",\"('B', 'Ca', 'Cl', 'H', 'O')\",OTHERS,True\nmp-1195483,\"{'Ba': 4.0, 'Th': 8.0, 'S': 20.0}\",\"('Ba', 'S', 'Th')\",OTHERS,True\nmp-24510,\"{'H': 4.0, 'O': 14.0, 'I': 4.0, 'Ba': 2.0}\",\"('Ba', 'H', 'I', 'O')\",OTHERS,True\nAl 40 Mn 25 Fe 15 Ge 20,\"{'Al': 40.0, 'Mn': 25.0, 'Fe': 15.0, 'Ge': 20.0}\",\"('Al', 'Fe', 'Ge', 'Mn')\",QC,True\nmp-1105605,\"{'Tb': 7.0, 'Fe': 1.0, 'I': 12.0}\",\"('Fe', 'I', 'Tb')\",OTHERS,True\nmp-18903,\"{'O': 6.0, 'Sr': 2.0, 'Cd': 1.0, 'W': 1.0}\",\"('Cd', 'O', 'Sr', 'W')\",OTHERS,True\nmp-1198571,\"{'Ba': 8.0, 'Eu': 7.0, 'Cl': 34.0}\",\"('Ba', 'Cl', 'Eu')\",OTHERS,True\nmp-16223,\"{'Te': 8.0, 'Tl': 8.0}\",\"('Te', 'Tl')\",OTHERS,True\nmvc-3948,\"{'Mg': 4.0, 'Cr': 4.0, 'O': 10.0}\",\"('Cr', 'Mg', 'O')\",OTHERS,True\nmp-1184410,\"{'Eu': 2.0, 'Mg': 2.0}\",\"('Eu', 'Mg')\",OTHERS,True\nmp-1102773,\"{'K': 8.0, 'Bi': 1.0, 'O': 3.0}\",\"('Bi', 'K', 'O')\",OTHERS,True\nmp-1191873,\"{'Sm': 6.0, 'Mn': 2.0, 'Ga': 2.0, 'S': 14.0}\",\"('Ga', 'Mn', 'S', 'Sm')\",OTHERS,True\nmp-27358,\"{'O': 20.0, 'Se': 8.0}\",\"('O', 'Se')\",OTHERS,True\nmp-31088,\"{'Pd': 4.0, 'Dy': 4.0, 'Pb': 2.0}\",\"('Dy', 'Pb', 'Pd')\",OTHERS,True\nmp-672671,\"{'Pb': 3.0, 'I': 6.0}\",\"('I', 'Pb')\",OTHERS,True\nmp-755419,\"{'Bi': 2.0, 'Te': 1.0, 'O': 2.0}\",\"('Bi', 'O', 'Te')\",OTHERS,True\nmp-1185263,\"{'Li': 1.0, 'Pa': 1.0, 'O': 3.0}\",\"('Li', 'O', 'Pa')\",OTHERS,True\nmp-1183100,\"{'Ac': 6.0, 'Cd': 2.0}\",\"('Ac', 'Cd')\",OTHERS,True\nmp-1094181,\"{'Hf': 3.0, 'Mg': 3.0}\",\"('Hf', 'Mg')\",OTHERS,True\nmvc-11366,\"{'Co': 2.0, 'Si': 4.0, 'O': 12.0}\",\"('Co', 'O', 'Si')\",OTHERS,True\nmp-649676,\"{'Ca': 12.0, 'Si': 12.0, 'O': 36.0}\",\"('Ca', 'O', 'Si')\",OTHERS,True\nmp-1227184,\"{'Ca': 1.0, 'Nd': 3.0, 'Cr': 4.0, 'O': 16.0}\",\"('Ca', 'Cr', 'Nd', 'O')\",OTHERS,True\nmp-1226017,\"{'Co': 1.0, 'Ni': 1.0, 'Te': 2.0}\",\"('Co', 'Ni', 'Te')\",OTHERS,True\nmp-705416,\"{'Fe': 24.0, 'O': 32.0}\",\"('Fe', 'O')\",OTHERS,True\nmp-765089,\"{'Ti': 3.0, 'V': 2.0, 'Cu': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Cu', 'O', 'P', 'Ti', 'V')\",OTHERS,True\nmp-1226182,\"{'Cs': 2.0, 'Al': 1.0, 'Te': 3.0, 'O': 12.0}\",\"('Al', 'Cs', 'O', 'Te')\",OTHERS,True\nmp-1072256,\"{'Hf': 4.0, 'Ge': 2.0}\",\"('Ge', 'Hf')\",OTHERS,True\nmp-14653,\"{'F': 12.0, 'Ag': 1.0, 'Sb': 2.0}\",\"('Ag', 'F', 'Sb')\",OTHERS,True\nmp-863703,\"{'Pm': 2.0, 'Mg': 1.0, 'Sn': 1.0}\",\"('Mg', 'Pm', 'Sn')\",OTHERS,True\nmp-1199443,\"{'Sn': 8.0, 'H': 48.0, 'C': 8.0, 'N': 24.0, 'Cl': 24.0}\",\"('C', 'Cl', 'H', 'N', 'Sn')\",OTHERS,True\nmp-1175604,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1094416,\"{'Mg': 8.0, 'Ti': 8.0}\",\"('Mg', 'Ti')\",OTHERS,True\nmp-942701,\"{'Li': 2.0, 'Co': 2.0, 'S': 2.0, 'O': 8.0, 'F': 2.0}\",\"('Co', 'F', 'Li', 'O', 'S')\",OTHERS,True\nmp-16867,\"{'O': 16.0, 'Cu': 2.0, 'Yb': 2.0, 'W': 4.0}\",\"('Cu', 'O', 'W', 'Yb')\",OTHERS,True\nmvc-5180,\"{'Ca': 4.0, 'Cr': 4.0, 'O': 8.0}\",\"('Ca', 'Cr', 'O')\",OTHERS,True\nmp-755433,\"{'Li': 2.0, 'Co': 4.0, 'O': 4.0, 'F': 6.0}\",\"('Co', 'F', 'Li', 'O')\",OTHERS,True\nmp-1079075,\"{'Y': 2.0, 'Ga': 4.0, 'Pd': 2.0}\",\"('Ga', 'Pd', 'Y')\",OTHERS,True\nmp-671913,\"{'Mo': 8.0, 'Se': 16.0, 'Cl': 32.0, 'O': 8.0}\",\"('Cl', 'Mo', 'O', 'Se')\",OTHERS,True\nmp-759864,\"{'Li': 2.0, 'V': 2.0, 'Cr': 2.0, 'P': 4.0, 'H': 4.0, 'O': 20.0}\",\"('Cr', 'H', 'Li', 'O', 'P', 'V')\",OTHERS,True\nmp-972176,\"{'Zr': 10.0, 'Al': 6.0, 'C': 2.0}\",\"('Al', 'C', 'Zr')\",OTHERS,True\nmp-1177874,\"{'Li': 8.0, 'Ni': 12.0, 'W': 4.0, 'O': 32.0}\",\"('Li', 'Ni', 'O', 'W')\",OTHERS,True\nmp-759672,\"{'Li': 2.0, 'V': 2.0, 'O': 2.0, 'F': 6.0}\",\"('F', 'Li', 'O', 'V')\",OTHERS,True\nmp-1101598,\"{'Li': 2.0, 'Ni': 2.0, 'P': 4.0, 'O': 14.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,True\nmp-1226589,\"{'Ce': 1.0, 'Nd': 1.0, 'Al': 2.0, 'O': 6.0}\",\"('Al', 'Ce', 'Nd', 'O')\",OTHERS,True\nmp-1184159,\"{'Er': 1.0, 'Hf': 1.0, 'Ru': 2.0}\",\"('Er', 'Hf', 'Ru')\",OTHERS,True\nmp-1023942,\"{'Te': 4.0, 'W': 2.0}\",\"('Te', 'W')\",OTHERS,True\nmp-761063,\"{'Li': 6.0, 'Fe': 2.0, 'Ni': 6.0, 'O': 16.0}\",\"('Fe', 'Li', 'Ni', 'O')\",OTHERS,True\nmp-1036224,\"{'Mg': 14.0, 'Mn': 1.0, 'Sn': 1.0, 'O': 16.0}\",\"('Mg', 'Mn', 'O', 'Sn')\",OTHERS,True\nmp-1188434,\"{'Y': 10.0, 'Tl': 6.0}\",\"('Tl', 'Y')\",OTHERS,True\nmp-961650,\"{'Al': 1.0, 'V': 1.0, 'Ni': 1.0}\",\"('Al', 'Ni', 'V')\",OTHERS,True\nmp-1185128,\"{'La': 6.0, 'Hf': 2.0}\",\"('Hf', 'La')\",OTHERS,True\nmp-780086,\"{'Li': 8.0, 'Mn': 1.0, 'O': 4.0, 'F': 2.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1100580,\"{'Li': 9.0, 'Mn': 7.0, 'O': 16.0}\",\"('Li', 'Mn', 'O')\",OTHERS,True\nmp-1201749,\"{'Sr': 16.0, 'As': 16.0, 'O': 56.0}\",\"('As', 'O', 'Sr')\",OTHERS,True\nmp-703370,\"{'Ca': 13.0, 'Si': 10.0, 'H': 12.0, 'O': 34.0, 'F': 10.0}\",\"('Ca', 'F', 'H', 'O', 'Si')\",OTHERS,True\nmp-865757,\"{'Yb': 1.0, 'Ga': 1.0, 'Rh': 2.0}\",\"('Ga', 'Rh', 'Yb')\",OTHERS,True\nmp-862319,\"{'Ac': 2.0, 'Cd': 1.0, 'Sn': 1.0}\",\"('Ac', 'Cd', 'Sn')\",OTHERS,True\nmp-1178498,\"{'Cd': 2.0, 'Co': 4.0, 'O': 8.0}\",\"('Cd', 'Co', 'O')\",OTHERS,True\nmp-24123,\"{'H': 12.0, 'B': 12.0, 'Rb': 2.0}\",\"('B', 'H', 'Rb')\",OTHERS,True\nmp-758074,\"{'Li': 4.0, 'V': 4.0, 'P': 4.0, 'O': 20.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-761579,\"{'Fe': 2.0, 'Co': 6.0, 'O': 16.0}\",\"('Co', 'Fe', 'O')\",OTHERS,True\nmp-778885,\"{'Li': 10.0, 'Mn': 3.0, 'Cr': 2.0, 'Ni': 3.0, 'O': 16.0}\",\"('Cr', 'Li', 'Mn', 'Ni', 'O')\",OTHERS,True\nmp-24110,\"{'H': 18.0, 'N': 6.0, 'O': 8.0, 'Cl': 4.0, 'Ru': 1.0, 'Cs': 1.0}\",\"('Cl', 'Cs', 'H', 'N', 'O', 'Ru')\",OTHERS,True\nmp-775136,\"{'Li': 4.0, 'Cr': 3.0, 'Co': 3.0, 'Te': 2.0, 'O': 16.0}\",\"('Co', 'Cr', 'Li', 'O', 'Te')\",OTHERS,True\nmp-1069346,\"{'Pr': 1.0, 'V': 1.0, 'O': 3.0}\",\"('O', 'Pr', 'V')\",OTHERS,True\nmp-1209336,\"{'Pr': 8.0, 'Sn': 12.0}\",\"('Pr', 'Sn')\",OTHERS,True\nmp-1106064,\"{'Ho': 4.0, 'Ga': 12.0, 'Ni': 1.0}\",\"('Ga', 'Ho', 'Ni')\",OTHERS,True\nmp-559557,\"{'Cs': 4.0, 'Na': 4.0, 'B': 20.0, 'O': 34.0}\",\"('B', 'Cs', 'Na', 'O')\",OTHERS,True\nmp-1227976,\"{'Ba': 6.0, 'Br': 2.0, 'N': 3.0, 'Cl': 1.0}\",\"('Ba', 'Br', 'Cl', 'N')\",OTHERS,True\nmp-569472,\"{'Gd': 4.0, 'Al': 18.0, 'Ir': 6.0}\",\"('Al', 'Gd', 'Ir')\",OTHERS,True\nmp-22383,\"{'Si': 2.0, 'Co': 2.0, 'Pu': 1.0}\",\"('Co', 'Pu', 'Si')\",OTHERS,True\nmp-541312,\"{'Ge': 3.0, 'Te': 6.0, 'As': 2.0}\",\"('As', 'Ge', 'Te')\",OTHERS,True\nmp-56,{'Ba': 2.0},\"('Ba',)\",OTHERS,True\nmp-759124,\"{'Li': 6.0, 'Co': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Co', 'Li', 'O', 'Si')\",OTHERS,True\nmp-1204519,\"{'Al': 8.0, 'P': 4.0, 'O': 32.0}\",\"('Al', 'O', 'P')\",OTHERS,True\nmp-1176039,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1111297,\"{'K': 3.0, 'Y': 1.0, 'F': 6.0}\",\"('F', 'K', 'Y')\",OTHERS,True\nmp-14704,\"{'Li': 24.0, 'B': 12.0, 'O': 36.0, 'Y': 4.0}\",\"('B', 'Li', 'O', 'Y')\",OTHERS,True\nmp-738615,\"{'Hg': 4.0, 'H': 12.0, 'C': 4.0, 'S': 4.0, 'O': 12.0}\",\"('C', 'H', 'Hg', 'O', 'S')\",OTHERS,True\nmp-771303,\"{'Li': 4.0, 'Mn': 4.0, 'B': 8.0, 'O': 20.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-775861,\"{'Zr': 16.0, 'N': 16.0, 'O': 8.0}\",\"('N', 'O', 'Zr')\",OTHERS,True\nmp-758129,\"{'Li': 4.0, 'Mn': 2.0, 'Cr': 3.0, 'Co': 3.0, 'O': 16.0}\",\"('Co', 'Cr', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1003322,\"{'Ca': 2.0, 'Mn': 2.0, 'O': 4.0}\",\"('Ca', 'Mn', 'O')\",OTHERS,True\nmp-1203536,\"{'Ho': 20.0, 'Co': 24.0, 'Sn': 72.0}\",\"('Co', 'Ho', 'Sn')\",OTHERS,True\nmp-558301,\"{'Si': 16.0, 'O': 32.0}\",\"('O', 'Si')\",OTHERS,True\nmvc-14231,\"{'Ca': 2.0, 'Fe': 2.0, 'F': 8.0}\",\"('Ca', 'F', 'Fe')\",OTHERS,True\nmp-2294,\"{'Al': 6.0, 'Ir': 2.0}\",\"('Al', 'Ir')\",OTHERS,True\nmp-776437,\"{'La': 4.0, 'Ta': 8.0, 'N': 4.0, 'O': 20.0}\",\"('La', 'N', 'O', 'Ta')\",OTHERS,True\nmp-1191365,\"{'Gd': 8.0, 'P': 8.0, 'S': 8.0}\",\"('Gd', 'P', 'S')\",OTHERS,True\nmp-758077,\"{'Li': 2.0, 'Fe': 16.0, 'O': 24.0}\",\"('Fe', 'Li', 'O')\",OTHERS,True\nmp-979940,\"{'Yb': 3.0, 'Zr': 1.0}\",\"('Yb', 'Zr')\",OTHERS,True\nmp-2124,\"{'Sb': 6.0, 'Ho': 8.0}\",\"('Ho', 'Sb')\",OTHERS,True\nmp-556155,\"{'Zn': 20.0, 'S': 20.0}\",\"('S', 'Zn')\",OTHERS,True\nmp-779108,\"{'Be': 16.0, 'P': 16.0, 'O': 56.0}\",\"('Be', 'O', 'P')\",OTHERS,True\nmp-753503,\"{'Li': 2.0, 'Mn': 4.0, 'F': 14.0}\",\"('F', 'Li', 'Mn')\",OTHERS,True\nmp-559417,\"{'La': 2.0, 'B': 4.0, 'Cl': 2.0, 'O': 8.0}\",\"('B', 'Cl', 'La', 'O')\",OTHERS,True\nmp-680400,\"{'K': 12.0, 'Ta': 8.0, 'S': 44.0}\",\"('K', 'S', 'Ta')\",OTHERS,True\nmp-1227917,\"{'Ba': 1.0, 'La': 2.0, 'Fe': 2.0, 'O': 7.0}\",\"('Ba', 'Fe', 'La', 'O')\",OTHERS,True\nmp-1077112,\"{'Eu': 2.0, 'Zn': 2.0, 'Ge': 2.0}\",\"('Eu', 'Ge', 'Zn')\",OTHERS,True\nmp-1073061,\"{'Mg': 8.0, 'Si': 12.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-752643,\"{'Na': 2.0, 'Ti': 4.0, 'O': 8.0}\",\"('Na', 'O', 'Ti')\",OTHERS,True\nmvc-11563,\"{'Ca': 2.0, 'V': 4.0, 'O': 8.0}\",\"('Ca', 'O', 'V')\",OTHERS,True\nmp-1220094,\"{'Nd': 1.0, 'Sm': 1.0, 'Fe': 17.0, 'N': 3.0}\",\"('Fe', 'N', 'Nd', 'Sm')\",OTHERS,True\nmp-1100344,\"{'Ca': 8.0, 'Sn': 8.0, 'S': 24.0}\",\"('Ca', 'S', 'Sn')\",OTHERS,True\nmp-1184208,\"{'Er': 1.0, 'Tl': 1.0, 'Rh': 2.0}\",\"('Er', 'Rh', 'Tl')\",OTHERS,True\nmp-1246527,\"{'Mn': 4.0, 'S': 3.0, 'N': 2.0}\",\"('Mn', 'N', 'S')\",OTHERS,True\nmp-540915,\"{'Eu': 6.0, 'O': 8.0, 'Br': 2.0}\",\"('Br', 'Eu', 'O')\",OTHERS,True\nmp-560563,\"{'K': 6.0, 'Pd': 4.0, 'O': 8.0}\",\"('K', 'O', 'Pd')\",OTHERS,True\nmp-558250,\"{'Mo': 4.0, 'H': 8.0, 'C': 8.0, 'O': 16.0}\",\"('C', 'H', 'Mo', 'O')\",OTHERS,True\nmp-1100166,\"{'Y': 1.0, 'Mg': 3.0}\",\"('Mg', 'Y')\",OTHERS,True\nmp-1198990,\"{'Na': 8.0, 'Pr': 4.0, 'Ge': 4.0, 'O': 20.0}\",\"('Ge', 'Na', 'O', 'Pr')\",OTHERS,True\nmp-780171,\"{'Hg': 4.0, 'H': 40.0, 'N': 8.0, 'Cl': 16.0, 'O': 4.0}\",\"('Cl', 'H', 'Hg', 'N', 'O')\",OTHERS,True\nmp-23443,\"{'Mn': 4.0, 'I': 12.0, 'Tl': 4.0}\",\"('I', 'Mn', 'Tl')\",OTHERS,True\nmp-1223876,\"{'K': 2.0, 'Th': 1.0, 'F': 6.0}\",\"('F', 'K', 'Th')\",OTHERS,True\nmp-1209305,\"{'Rb': 3.0, 'Yb': 1.0, 'P': 2.0, 'O': 8.0}\",\"('O', 'P', 'Rb', 'Yb')\",OTHERS,True\nmp-768754,\"{'Li': 4.0, 'Bi': 8.0, 'S': 12.0, 'O': 48.0}\",\"('Bi', 'Li', 'O', 'S')\",OTHERS,True\nmp-680674,\"{'Cs': 6.0, 'Bi': 4.0, 'Br': 18.0}\",\"('Bi', 'Br', 'Cs')\",OTHERS,True\nmp-1246838,\"{'V': 4.0, 'Co': 6.0, 'N': 8.0}\",\"('Co', 'N', 'V')\",OTHERS,True\nmp-1100156,\"{'Rb': 1.0, 'Mg': 6.0, 'Sb': 1.0}\",\"('Mg', 'Rb', 'Sb')\",OTHERS,True\nmp-1247033,\"{'Mg': 2.0, 'Ti': 3.0, 'Ga': 1.0, 'S': 8.0}\",\"('Ga', 'Mg', 'S', 'Ti')\",OTHERS,True\nmp-1218551,\"{'Sr': 3.0, 'Y': 2.0, 'Fe': 1.0, 'Cu': 3.0, 'Bi': 1.0, 'O': 12.0}\",\"('Bi', 'Cu', 'Fe', 'O', 'Sr', 'Y')\",OTHERS,True\nmp-1216284,\"{'V': 1.0, 'Re': 1.0, 'O': 4.0}\",\"('O', 'Re', 'V')\",OTHERS,True\nmvc-13322,\"{'Sr': 4.0, 'Y': 4.0, 'Mn': 4.0, 'O': 14.0}\",\"('Mn', 'O', 'Sr', 'Y')\",OTHERS,True\nmp-17770,\"{'O': 24.0, 'P': 8.0, 'Cs': 2.0, 'Pr': 2.0}\",\"('Cs', 'O', 'P', 'Pr')\",OTHERS,True\nmp-17542,\"{'O': 24.0, 'P': 4.0, 'Mo': 4.0, 'Tl': 4.0}\",\"('Mo', 'O', 'P', 'Tl')\",OTHERS,True\nmp-1217298,\"{'Th': 5.0, 'C': 1.0}\",\"('C', 'Th')\",OTHERS,True\nmp-1001917,\"{'Ho': 1.0, 'As': 1.0}\",\"('As', 'Ho')\",OTHERS,True\nmp-849665,\"{'Mn': 12.0, 'O': 4.0, 'F': 32.0}\",\"('F', 'Mn', 'O')\",OTHERS,True\nmp-651688,\"{'Si': 8.0, 'Ag': 20.0, 'O': 26.0}\",\"('Ag', 'O', 'Si')\",OTHERS,True\nmp-1214757,\"{'Ba': 2.0, 'Ca': 1.0, 'Sm': 2.0, 'Ti': 3.0, 'Cu': 2.0, 'O': 14.0}\",\"('Ba', 'Ca', 'Cu', 'O', 'Sm', 'Ti')\",OTHERS,True\nmp-640051,\"{'Pu': 4.0, 'Ni': 4.0, 'Sn': 2.0}\",\"('Ni', 'Pu', 'Sn')\",OTHERS,True\nmp-760107,\"{'V': 28.0, 'O': 24.0, 'F': 36.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmp-1245615,\"{'Nb': 2.0, 'Te': 2.0, 'N': 2.0}\",\"('N', 'Nb', 'Te')\",OTHERS,True\nmp-1101620,\"{'Dy': 6.0, 'Nb': 2.0, 'O': 14.0}\",\"('Dy', 'Nb', 'O')\",OTHERS,True\nmp-1190414,\"{'Yb': 7.0, 'In': 1.0, 'Ni': 4.0, 'Ge': 12.0}\",\"('Ge', 'In', 'Ni', 'Yb')\",OTHERS,True\nmp-1174208,\"{'Li': 6.0, 'Mn': 2.0, 'Co': 2.0, 'O': 10.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1245525,\"{'Ge': 4.0, 'Pb': 4.0, 'N': 8.0}\",\"('Ge', 'N', 'Pb')\",OTHERS,True\nmp-546142,\"{'O': 4.0, 'U': 1.0, 'Na': 2.0}\",\"('Na', 'O', 'U')\",OTHERS,True\nmp-27837,\"{'Na': 1.0, 'H': 1.0, 'F': 2.0}\",\"('F', 'H', 'Na')\",OTHERS,True\nmp-760093,\"{'Li': 2.0, 'Ti': 16.0, 'O': 32.0}\",\"('Li', 'O', 'Ti')\",OTHERS,True\nmp-1223957,\"{'K': 4.0, 'Mg': 1.0, 'Cu': 3.0, 'F': 12.0}\",\"('Cu', 'F', 'K', 'Mg')\",OTHERS,True\nmp-1186167,\"{'Na': 1.0, 'Si': 1.0, 'O': 3.0}\",\"('Na', 'O', 'Si')\",OTHERS,True\nmp-777800,\"{'Fe': 4.0, 'O': 6.0, 'F': 2.0}\",\"('F', 'Fe', 'O')\",OTHERS,True\nmp-1096592,\"{'Hf': 2.0, 'Zn': 1.0, 'Fe': 1.0}\",\"('Fe', 'Hf', 'Zn')\",OTHERS,True\nmp-795607,\"{'V': 8.0, 'N': 16.0, 'O': 44.0}\",\"('N', 'O', 'V')\",OTHERS,True\nmp-1204701,\"{'Cd': 4.0, 'N': 8.0, 'O': 24.0}\",\"('Cd', 'N', 'O')\",OTHERS,True\nmp-675199,\"{'Na': 2.0, 'Pr': 2.0, 'S': 4.0}\",\"('Na', 'Pr', 'S')\",OTHERS,True\nmp-552191,\"{'O': 6.0, 'Ba': 2.0, 'Tb': 1.0, 'Bi': 1.0}\",\"('Ba', 'Bi', 'O', 'Tb')\",OTHERS,True\nmp-615444,\"{'Cr': 2.0, 'P': 2.0, 'C': 10.0, 'Br': 6.0, 'O': 10.0}\",\"('Br', 'C', 'Cr', 'O', 'P')\",OTHERS,True\nmp-753155,\"{'Fe': 8.0, 'O': 14.0, 'F': 2.0}\",\"('F', 'Fe', 'O')\",OTHERS,True\nmp-1183521,\"{'Ca': 12.0, 'Si': 4.0, 'O': 4.0}\",\"('Ca', 'O', 'Si')\",OTHERS,True\nmp-754905,\"{'Ni': 6.0, 'O': 2.0, 'F': 10.0}\",\"('F', 'Ni', 'O')\",OTHERS,True\nmp-759157,\"{'V': 6.0, 'O': 4.0, 'F': 12.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmp-674976,\"{'Zr': 9.0, 'Sc': 1.0, 'O': 20.0}\",\"('O', 'Sc', 'Zr')\",OTHERS,True\nmp-1030461,\"{'Te': 4.0, 'Mo': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Te')\",OTHERS,True\nmp-10533,\"{'S': 8.0, 'Cu': 4.0, 'Y': 4.0}\",\"('Cu', 'S', 'Y')\",OTHERS,True\nmp-640315,\"{'Y': 2.0, 'Zn': 40.0, 'Ru': 4.0}\",\"('Ru', 'Y', 'Zn')\",OTHERS,True\nmp-976378,\"{'La': 6.0, 'Sn': 8.0}\",\"('La', 'Sn')\",OTHERS,True\nmp-14652,\"{'P': 6.0, 'Cs': 4.0}\",\"('Cs', 'P')\",OTHERS,True\nmp-1019055,\"{'Re': 2.0, 'N': 4.0}\",\"('N', 'Re')\",OTHERS,True\nmp-1079174,\"{'Pu': 4.0, 'Pd': 4.0}\",\"('Pd', 'Pu')\",OTHERS,True\nmp-764759,\"{'Li': 6.0, 'Mn': 5.0, 'O': 12.0}\",\"('Li', 'Mn', 'O')\",OTHERS,True\nmp-1208624,\"{'Sr': 1.0, 'P': 4.0, 'N': 2.0, 'O': 12.0}\",\"('N', 'O', 'P', 'Sr')\",OTHERS,True\nmp-1224902,\"{'Gd': 2.0, 'Er': 2.0, 'Al': 12.0}\",\"('Al', 'Er', 'Gd')\",OTHERS,True\nmp-1194897,\"{'Na': 8.0, 'Lu': 4.0, 'C': 8.0, 'O': 24.0, 'F': 4.0}\",\"('C', 'F', 'Lu', 'Na', 'O')\",OTHERS,True\nmp-1174322,\"{'Li': 8.0, 'Mn': 6.0, 'O': 14.0}\",\"('Li', 'Mn', 'O')\",OTHERS,True\nmp-1104360,\"{'Er': 3.0, 'Ga': 8.0, 'Ir': 3.0}\",\"('Er', 'Ga', 'Ir')\",OTHERS,True\nmp-1222773,\"{'Li': 2.0, 'Fe': 1.0, 'P': 2.0, 'S': 6.0}\",\"('Fe', 'Li', 'P', 'S')\",OTHERS,True\nmp-1209861,\"{'Nd': 6.0, 'Hf': 2.0, 'Sb': 10.0}\",\"('Hf', 'Nd', 'Sb')\",OTHERS,True\nmp-1218687,\"{'Sr': 4.0, 'La': 1.0, 'Co': 5.0, 'O': 15.0}\",\"('Co', 'La', 'O', 'Sr')\",OTHERS,True\nmp-1245701,\"{'Fe': 2.0, 'Ge': 14.0, 'N': 20.0}\",\"('Fe', 'Ge', 'N')\",OTHERS,True\nmp-981390,\"{'Hg': 1.0, 'Bi': 3.0}\",\"('Bi', 'Hg')\",OTHERS,True\nmp-1210236,\"{'Nd': 2.0, 'Fe': 21.0, 'B': 6.0}\",\"('B', 'Fe', 'Nd')\",OTHERS,True\nmp-17926,\"{'Ni': 6.0, 'Zr': 6.0, 'Sb': 8.0}\",\"('Ni', 'Sb', 'Zr')\",OTHERS,True\nmp-559476,\"{'Dy': 4.0, 'I': 12.0, 'O': 36.0}\",\"('Dy', 'I', 'O')\",OTHERS,True\nmp-768941,\"{'Sr': 6.0, 'Te': 2.0, 'O': 12.0}\",\"('O', 'Sr', 'Te')\",OTHERS,True\nmp-504908,\"{'In': 6.0, 'Te': 3.0, 'O': 18.0}\",\"('In', 'O', 'Te')\",OTHERS,True\nmp-1114094,\"{'Rb': 2.0, 'In': 1.0, 'Ag': 1.0, 'F': 6.0}\",\"('Ag', 'F', 'In', 'Rb')\",OTHERS,True\nmp-998911,\"{'Tm': 2.0, 'Ge': 2.0}\",\"('Ge', 'Tm')\",OTHERS,True\nmp-1076202,\"{'Sr': 28.0, 'Ca': 4.0, 'Ti': 20.0, 'Mn': 12.0, 'O': 80.0}\",\"('Ca', 'Mn', 'O', 'Sr', 'Ti')\",OTHERS,True\nmp-1213341,\"{'Gd': 14.0, 'Br': 6.0, 'O': 36.0}\",\"('Br', 'Gd', 'O')\",OTHERS,True\nmp-7131,\"{'Te': 1.0, 'Pr': 1.0}\",\"('Pr', 'Te')\",OTHERS,True\nmp-1185293,\"{'Li': 1.0, 'Ac': 2.0, 'Tl': 1.0}\",\"('Ac', 'Li', 'Tl')\",OTHERS,True\nmp-1201128,\"{'Na': 4.0, 'Ni': 1.0, 'P': 6.0, 'O': 24.0}\",\"('Na', 'Ni', 'O', 'P')\",OTHERS,True\nmp-1027492,\"{'Mo': 4.0, 'Se': 4.0, 'S': 4.0}\",\"('Mo', 'S', 'Se')\",OTHERS,True\nmp-17578,\"{'Ge': 6.0, 'Yb': 4.0, 'Ir': 7.0}\",\"('Ge', 'Ir', 'Yb')\",OTHERS,True\nmp-1217419,\"{'Tc': 3.0, 'Mo': 1.0}\",\"('Mo', 'Tc')\",OTHERS,True\nmvc-16583,\"{'Mg': 2.0, 'Cr': 2.0, 'F': 8.0}\",\"('Cr', 'F', 'Mg')\",OTHERS,True\nmp-557498,\"{'Na': 4.0, 'Bi': 8.0, 'Au': 4.0, 'O': 20.0}\",\"('Au', 'Bi', 'Na', 'O')\",OTHERS,True\nmp-1221047,\"{'Na': 1.0, 'Er': 1.0, 'Mo': 2.0, 'O': 8.0}\",\"('Er', 'Mo', 'Na', 'O')\",OTHERS,True\nmp-1228324,\"{'Ba': 12.0, 'Na': 8.0, 'Sb': 16.0}\",\"('Ba', 'Na', 'Sb')\",OTHERS,True\nmp-753321,\"{'Li': 2.0, 'Fe': 2.0, 'P': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,True\nmp-1093982,\"{'Ti': 1.0, 'Cd': 1.0, 'Pd': 2.0}\",\"('Cd', 'Pd', 'Ti')\",OTHERS,True\nmp-760983,\"{'Li': 10.0, 'V': 5.0, 'Cr': 3.0, 'O': 16.0}\",\"('Cr', 'Li', 'O', 'V')\",OTHERS,True\nmp-775157,\"{'Li': 12.0, 'Mn': 2.0, 'V': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,True\nmp-9442,\"{'Si': 6.0, 'Fe': 4.0, 'Dy': 6.0}\",\"('Dy', 'Fe', 'Si')\",OTHERS,True\nmp-1203729,\"{'Ba': 2.0, 'Cu': 1.0, 'C': 12.0, 'O': 18.0}\",\"('Ba', 'C', 'Cu', 'O')\",OTHERS,True\nmp-1208576,\"{'Ta': 4.0, 'Co': 4.0, 'As': 4.0}\",\"('As', 'Co', 'Ta')\",OTHERS,True\nmp-849278,\"{'Fe': 1.0, 'Ni': 3.0, 'Sn': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Fe', 'Ni', 'O', 'P', 'Sn')\",OTHERS,True\nmp-1199794,\"{'Tm': 20.0, 'In': 40.0, 'Ni': 18.0}\",\"('In', 'Ni', 'Tm')\",OTHERS,True\nmp-772660,\"{'Nb': 4.0, 'Cr': 4.0, 'O': 16.0}\",\"('Cr', 'Nb', 'O')\",OTHERS,True\nmp-752401,\"{'Rb': 4.0, 'Zr': 2.0, 'O': 6.0}\",\"('O', 'Rb', 'Zr')\",OTHERS,True\nmp-776544,\"{'Li': 4.0, 'Fe': 8.0, 'O': 4.0, 'F': 20.0}\",\"('F', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-1221673,\"{'Mn': 2.0, 'Cr': 2.0, 'P': 4.0}\",\"('Cr', 'Mn', 'P')\",OTHERS,True\nmp-11201,\"{'Sc': 6.0, 'Fe': 1.0, 'Sb': 2.0}\",\"('Fe', 'Sb', 'Sc')\",OTHERS,True\nmp-1183066,\"{'Ac': 2.0, 'Zn': 1.0, 'Au': 1.0}\",\"('Ac', 'Au', 'Zn')\",OTHERS,True\nmp-763588,\"{'Li': 2.0, 'Fe': 2.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-27441,\"{'O': 22.0, 'Se': 8.0, 'Au': 4.0}\",\"('Au', 'O', 'Se')\",OTHERS,True\nmp-28085,\"{'F': 28.0, 'K': 4.0, 'As': 8.0}\",\"('As', 'F', 'K')\",OTHERS,True\nmp-1176394,\"{'Na': 8.0, 'Mn': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Mn', 'Na', 'O', 'P')\",OTHERS,True\nmp-4051,\"{'O': 8.0, 'Al': 2.0, 'P': 2.0}\",\"('Al', 'O', 'P')\",OTHERS,True\nmp-1099978,\"{'La': 24.0, 'Sm': 8.0, 'Cr': 20.0, 'Fe': 12.0, 'O': 80.0}\",\"('Cr', 'Fe', 'La', 'O', 'Sm')\",OTHERS,True\nmp-1210094,\"{'Na': 1.0, 'As': 4.0, 'I': 1.0, 'O': 6.0}\",\"('As', 'I', 'Na', 'O')\",OTHERS,True\nmp-1220949,\"{'Na': 14.0, 'Fe': 8.0, 'P': 18.0, 'O': 64.0}\",\"('Fe', 'Na', 'O', 'P')\",OTHERS,True\nmp-18162,\"{'Li': 4.0, 'O': 8.0, 'Cu': 8.0}\",\"('Cu', 'Li', 'O')\",OTHERS,True\nmp-759605,\"{'Li': 4.0, 'Fe': 2.0, 'C': 4.0, 'O': 12.0}\",\"('C', 'Fe', 'Li', 'O')\",OTHERS,True\nmp-1223118,\"{'La': 4.0, 'Nb': 1.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'La', 'Nb', 'O')\",OTHERS,True\nmp-1196614,\"{'Cs': 8.0, 'Tl': 4.0, 'Cl': 20.0, 'O': 4.0}\",\"('Cl', 'Cs', 'O', 'Tl')\",OTHERS,True\nAl 75 Pd 13 Ru 12,\"{'Al': 75.0, 'Pd': 13.0, 'Ru': 12.0}\",\"('Al', 'Pd', 'Ru')\",AC,True\nmp-758595,\"{'Li': 8.0, 'Cr': 4.0, 'Si': 4.0, 'O': 16.0}\",\"('Cr', 'Li', 'O', 'Si')\",OTHERS,True\nmp-1097274,\"{'K': 2.0, 'Rb': 1.0, 'As': 1.0}\",\"('As', 'K', 'Rb')\",OTHERS,True\nmp-1197565,\"{'Ce': 2.0, 'Cd': 40.0, 'Pd': 4.0}\",\"('Cd', 'Ce', 'Pd')\",OTHERS,True\nmp-1095993,\"{'Zr': 1.0, 'In': 1.0, 'Ag': 2.0}\",\"('Ag', 'In', 'Zr')\",OTHERS,True\nmp-1247445,\"{'Mg': 2.0, 'In': 1.0, 'N': 2.0}\",\"('In', 'Mg', 'N')\",OTHERS,True\nmvc-2250,\"{'Y': 1.0, 'Cu': 3.0, 'Ni': 4.0, 'O': 12.0}\",\"('Cu', 'Ni', 'O', 'Y')\",OTHERS,True\nmp-8850,\"{'S': 12.0, 'Dy': 8.0}\",\"('Dy', 'S')\",OTHERS,True\nmp-29136,\"{'N': 10.0, 'Cu': 6.0, 'Sr': 12.0}\",\"('Cu', 'N', 'Sr')\",OTHERS,True\nmp-1220559,\"{'Nb': 4.0, 'H': 3.0, 'S': 8.0}\",\"('H', 'Nb', 'S')\",OTHERS,True\nmp-681,\"{'Zn': 4.0, 'Eu': 2.0}\",\"('Eu', 'Zn')\",OTHERS,True\nmp-568036,\"{'La': 8.0, 'Ga': 4.0, 'N': 12.0}\",\"('Ga', 'La', 'N')\",OTHERS,True\nmp-1209055,\"{'Sb': 1.0, 'Br': 6.0, 'N': 2.0}\",\"('Br', 'N', 'Sb')\",OTHERS,True\nmp-867896,\"{'Sc': 1.0, 'Zn': 1.0, 'Cu': 2.0}\",\"('Cu', 'Sc', 'Zn')\",OTHERS,True\nmp-1196269,\"{'In': 4.0, 'Re': 8.0, 'C': 36.0, 'O': 36.0}\",\"('C', 'In', 'O', 'Re')\",OTHERS,True\nmp-1245099,\"{'Co': 30.0, 'O': 60.0}\",\"('Co', 'O')\",OTHERS,True\nmp-20491,\"{'Cu': 2.0, 'In': 1.0, 'La': 1.0}\",\"('Cu', 'In', 'La')\",OTHERS,True\nmp-1198754,\"{'Zn': 4.0, 'Sn': 4.0, 'P': 56.0}\",\"('P', 'Sn', 'Zn')\",OTHERS,True\nmp-1197223,\"{'Na': 4.0, 'Zn': 1.0, 'P': 4.0, 'H': 16.0, 'C': 2.0, 'N': 2.0, 'O': 16.0}\",\"('C', 'H', 'N', 'Na', 'O', 'P', 'Zn')\",OTHERS,True\nmp-38994,\"{'Na': 1.0, 'Al': 1.0, 'Si': 4.0}\",\"('Al', 'Na', 'Si')\",OTHERS,True\nmp-1037599,\"{'K': 1.0, 'Mg': 30.0, 'Fe': 1.0, 'O': 32.0}\",\"('Fe', 'K', 'Mg', 'O')\",OTHERS,True\nmp-25829,\"{'Li': 2.0, 'Mn': 4.0, 'P': 6.0, 'O': 22.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,True\nmp-1079449,\"{'Nd': 2.0, 'Si': 4.0, 'Ir': 4.0}\",\"('Ir', 'Nd', 'Si')\",OTHERS,True\nmp-1225580,\"{'La': 1.0, 'Ce': 1.0, 'Cu': 4.0, 'Si': 4.0}\",\"('Ce', 'Cu', 'La', 'Si')\",OTHERS,True\nmp-1182301,\"{'Co': 12.0, 'B': 28.0, 'I': 4.0, 'O': 52.0}\",\"('B', 'Co', 'I', 'O')\",OTHERS,True\nmp-1199982,\"{'Rb': 8.0, 'U': 4.0, 'Se': 8.0, 'O': 48.0}\",\"('O', 'Rb', 'Se', 'U')\",OTHERS,True\nmp-1027663,\"{'Te': 4.0, 'Mo': 3.0, 'W': 1.0, 'Se': 4.0}\",\"('Mo', 'Se', 'Te', 'W')\",OTHERS,True\nmp-19987,\"{'Pa': 6.0, 'Sb': 8.0}\",\"('Pa', 'Sb')\",OTHERS,True\nmp-626014,\"{'H': 20.0, 'I': 4.0, 'O': 24.0}\",\"('H', 'I', 'O')\",OTHERS,True\nmp-580354,\"{'Ce': 6.0, 'Ni': 18.0}\",\"('Ce', 'Ni')\",OTHERS,True\nmp-974395,\"{'Pt': 3.0, 'Rh': 1.0}\",\"('Pt', 'Rh')\",OTHERS,True\nmp-21320,\"{'Ni': 3.0, 'Ga': 3.0, 'U': 3.0}\",\"('Ga', 'Ni', 'U')\",OTHERS,True\nmp-941,\"{'Ni': 30.0, 'As': 12.0}\",\"('As', 'Ni')\",OTHERS,True\nmp-504457,\"{'Ba': 2.0, 'Ti': 12.0, 'O': 26.0}\",\"('Ba', 'O', 'Ti')\",OTHERS,True\nmp-19479,\"{'O': 32.0, 'Na': 10.0, 'Mo': 8.0, 'La': 2.0}\",\"('La', 'Mo', 'Na', 'O')\",OTHERS,True\nmp-1097603,\"{'Ba': 2.0, 'Mg': 1.0, 'Zn': 1.0}\",\"('Ba', 'Mg', 'Zn')\",OTHERS,True\nmp-1176477,\"{'Mn': 4.0, 'O': 6.0, 'F': 2.0}\",\"('F', 'Mn', 'O')\",OTHERS,True\nmp-1187143,\"{'Sr': 1.0, 'Be': 1.0, 'O': 3.0}\",\"('Be', 'O', 'Sr')\",OTHERS,True\nmp-20874,\"{'B': 6.0, 'Eu': 1.0}\",\"('B', 'Eu')\",OTHERS,True\nmp-623836,\"{'Th': 8.0, 'Ni': 8.0}\",\"('Ni', 'Th')\",OTHERS,True\nmp-27192,\"{'Cs': 4.0, 'Be': 8.0, 'F': 20.0}\",\"('Be', 'Cs', 'F')\",OTHERS,True\nmp-1245215,\"{'Al': 36.0, 'O': 18.0}\",\"('Al', 'O')\",OTHERS,True\nmp-1226501,\"{'Ce': 1.0, 'Sc': 1.0, 'Pd': 6.0}\",\"('Ce', 'Pd', 'Sc')\",OTHERS,True\nmp-568190,\"{'La': 16.0, 'C': 16.0, 'Cl': 10.0}\",\"('C', 'Cl', 'La')\",OTHERS,True\nmp-631254,\"{'K': 1.0, 'Mn': 1.0, 'Ru': 1.0}\",\"('K', 'Mn', 'Ru')\",OTHERS,True\nmp-1187796,\"{'U': 4.0, 'B': 16.0, 'Mo': 4.0}\",\"('B', 'Mo', 'U')\",OTHERS,True\nmp-695772,\"{'Mo': 2.0, 'P': 8.0, 'O': 24.0}\",\"('Mo', 'O', 'P')\",OTHERS,True\nmp-29305,\"{'O': 24.0, 'Re': 6.0, 'Pb': 3.0}\",\"('O', 'Pb', 'Re')\",OTHERS,True\nmp-1244872,\"{'B': 50.0, 'N': 50.0}\",\"('B', 'N')\",OTHERS,True\nmp-774573,\"{'Li': 4.0, 'Mn': 4.0, 'Ni': 2.0, 'P': 6.0, 'O': 24.0}\",\"('Li', 'Mn', 'Ni', 'O', 'P')\",OTHERS,True\nmp-1074562,\"{'Mg': 8.0, 'Si': 6.0}\",\"('Mg', 'Si')\",OTHERS,True\nmp-1207270,\"{'Tl': 2.0, 'Cu': 1.0, 'Te': 2.0}\",\"('Cu', 'Te', 'Tl')\",OTHERS,True\nmp-629560,\"{'Fe': 6.0, 'C': 18.0, 'Se': 4.0, 'O': 18.0}\",\"('C', 'Fe', 'O', 'Se')\",OTHERS,True\nmp-649470,\"{'K': 12.0, 'Nd': 8.0, 'N': 36.0, 'O': 108.0}\",\"('K', 'N', 'Nd', 'O')\",OTHERS,True\nmvc-680,\"{'Y': 2.0, 'Ni': 2.0, 'W': 4.0, 'O': 16.0}\",\"('Ni', 'O', 'W', 'Y')\",OTHERS,True\nmp-2400,\"{'Na': 4.0, 'S': 4.0}\",\"('Na', 'S')\",OTHERS,True\nmp-1097288,\"{'Sc': 2.0, 'Pt': 1.0, 'Rh': 1.0}\",\"('Pt', 'Rh', 'Sc')\",OTHERS,True\nmp-20692,\"{'N': 8.0, 'Mn': 4.0, 'Ge': 4.0}\",\"('Ge', 'Mn', 'N')\",OTHERS,True\nmp-1177526,\"{'Li': 6.0, 'V': 6.0, 'P': 16.0, 'O': 58.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-772822,\"{'Li': 3.0, 'Cu': 3.0, 'Te': 1.0, 'O': 8.0}\",\"('Cu', 'Li', 'O', 'Te')\",OTHERS,True\nmp-738670,\"{'H': 40.0, 'C': 16.0, 'N': 8.0, 'O': 24.0}\",\"('C', 'H', 'N', 'O')\",OTHERS,True\nmp-1185577,\"{'Cs': 2.0, 'Hg': 6.0}\",\"('Cs', 'Hg')\",OTHERS,True\nmp-866287,\"{'Dy': 1.0, 'Sn': 1.0, 'Au': 2.0}\",\"('Au', 'Dy', 'Sn')\",OTHERS,True\nmp-770495,\"{'Li': 4.0, 'Ti': 2.0, 'Mn': 3.0, 'Fe': 3.0, 'O': 16.0}\",\"('Fe', 'Li', 'Mn', 'O', 'Ti')\",OTHERS,True\nAu 60.3 Sn 24.6 Yb 15.1,\"{'Au': 60.3, 'Sn': 24.6, 'Yb': 15.1}\",\"('Au', 'Sn', 'Yb')\",AC,True\nmp-1186561,\"{'Pm': 2.0, 'Cd': 6.0}\",\"('Cd', 'Pm')\",OTHERS,True\nmp-1094981,\"{'Mg': 4.0, 'Bi': 8.0}\",\"('Bi', 'Mg')\",OTHERS,True\nmp-760102,\"{'W': 8.0, 'O': 4.0, 'F': 32.0}\",\"('F', 'O', 'W')\",OTHERS,True\nmp-8869,\"{'O': 4.0, 'S': 8.0, 'Y': 8.0}\",\"('O', 'S', 'Y')\",OTHERS,True\nmp-1226212,\"{'Cr': 1.0, 'Ni': 1.0, 'Sb': 2.0}\",\"('Cr', 'Ni', 'Sb')\",OTHERS,True\nmp-781628,\"{'Li': 7.0, 'Mn': 8.0, 'B': 8.0, 'O': 24.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-974613,\"{'Nd': 1.0, 'P': 3.0}\",\"('Nd', 'P')\",OTHERS,True\nmp-1185501,\"{'Lu': 1.0, 'Mg': 1.0, 'Tl': 2.0}\",\"('Lu', 'Mg', 'Tl')\",OTHERS,True\nmp-971720,\"{'Zn': 1.0, 'Ga': 3.0}\",\"('Ga', 'Zn')\",OTHERS,True\nmp-1204398,\"{'Co': 4.0, 'Mo': 4.0, 'H': 96.0, 'N': 24.0, 'Cl': 4.0, 'O': 28.0}\",\"('Cl', 'Co', 'H', 'Mo', 'N', 'O')\",OTHERS,True\nmp-1226498,\"{'Ce': 1.0, 'Pr': 1.0, 'Al': 4.0}\",\"('Al', 'Ce', 'Pr')\",OTHERS,True\nmp-1106292,\"{'C': 8.0, 'Se': 4.0, 'N': 8.0}\",\"('C', 'N', 'Se')\",OTHERS,True\nmp-753740,\"{'Cr': 1.0, 'O': 3.0}\",\"('Cr', 'O')\",OTHERS,True\nmp-613327,\"{'Fe': 2.0, 'B': 4.0, 'W': 4.0}\",\"('B', 'Fe', 'W')\",OTHERS,True\nmp-11352,\"{'Al': 5.0, 'Ni': 2.0, 'Pr': 1.0}\",\"('Al', 'Ni', 'Pr')\",OTHERS,True\nmp-1195,\"{'P': 28.0, 'Ba': 6.0}\",\"('Ba', 'P')\",OTHERS,True\nmp-759743,\"{'Sb': 20.0, 'O': 28.0, 'F': 4.0}\",\"('F', 'O', 'Sb')\",OTHERS,True\nmp-28024,\"{'Si': 4.0, 'Y': 4.0, 'Pd': 8.0}\",\"('Pd', 'Si', 'Y')\",OTHERS,True\nmp-624929,\"{'Cd': 1.0, 'In': 1.0, 'Ga': 1.0, 'S': 4.0}\",\"('Cd', 'Ga', 'In', 'S')\",OTHERS,True\nmp-1183403,\"{'Be': 1.0, 'Bi': 1.0, 'O': 3.0}\",\"('Be', 'Bi', 'O')\",OTHERS,True\nmp-7046,\"{'S': 2.0, 'Rb': 1.0, 'Dy': 1.0}\",\"('Dy', 'Rb', 'S')\",OTHERS,True\nmp-1030570,\"{'Te': 4.0, 'Mo': 2.0, 'W': 2.0, 'Se': 2.0, 'S': 2.0}\",\"('Mo', 'S', 'Se', 'Te', 'W')\",OTHERS,True\nmp-697807,\"{'Li': 2.0, 'Mn': 8.0, 'P': 14.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P')\",OTHERS,True\nmp-23983,\"{'H': 8.0, 'O': 14.0, 'P': 2.0, 'V': 2.0, 'Ni': 1.0}\",\"('H', 'Ni', 'O', 'P', 'V')\",OTHERS,True\nmp-567157,\"{'Ba': 14.0, 'Na': 10.0, 'Li': 6.0, 'N': 6.0}\",\"('Ba', 'Li', 'N', 'Na')\",OTHERS,True\nmp-559431,\"{'K': 4.0, 'V': 4.0, 'P': 4.0, 'O': 20.0}\",\"('K', 'O', 'P', 'V')\",OTHERS,True\nmp-1094557,\"{'Mg': 6.0, 'Sb': 6.0}\",\"('Mg', 'Sb')\",OTHERS,True\nmp-755434,\"{'Li': 4.0, 'Mn': 2.0, 'F': 8.0}\",\"('F', 'Li', 'Mn')\",OTHERS,True\nmp-743704,\"{'Ca': 8.0, 'Y': 4.0, 'Al': 14.0, 'Cr': 4.0, 'Si': 2.0, 'O': 48.0}\",\"('Al', 'Ca', 'Cr', 'O', 'Si', 'Y')\",OTHERS,True\nmp-772093,\"{'Li': 2.0, 'Fe': 2.0, 'P': 2.0, 'O': 8.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,True\nmp-17350,\"{'O': 24.0, 'Te': 4.0, 'La': 8.0}\",\"('La', 'O', 'Te')\",OTHERS,True\nmp-1106039,\"{'Sm': 4.0, 'As': 8.0, 'Au': 4.0}\",\"('As', 'Au', 'Sm')\",OTHERS,True\nmp-1226133,\"{'Co': 1.0, 'Mo': 4.0, 'N': 5.0}\",\"('Co', 'Mo', 'N')\",OTHERS,True\nmp-1187097,\"{'Sr': 2.0, 'Pd': 1.0, 'Pt': 1.0}\",\"('Pd', 'Pt', 'Sr')\",OTHERS,True\nmp-1211576,\"{'Nd': 8.0, 'Co': 2.0, 'Si': 8.0, 'C': 8.0, 'O': 44.0}\",\"('C', 'Co', 'Nd', 'O', 'Si')\",OTHERS,True\nmp-762029,\"{'Li': 4.0, 'Ag': 8.0, 'F': 16.0}\",\"('Ag', 'F', 'Li')\",OTHERS,True\nmp-1034331,\"{'Hf': 1.0, 'Mg': 14.0, 'V': 1.0, 'O': 16.0}\",\"('Hf', 'Mg', 'O', 'V')\",OTHERS,True\nmp-722246,\"{'Si': 2.0, 'H': 20.0, 'O': 8.0, 'F': 12.0}\",\"('F', 'H', 'O', 'Si')\",OTHERS,True\nmp-755290,\"{'V': 6.0, 'O': 8.0, 'F': 4.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmp-1205997,\"{'Na': 1.0, 'U': 1.0, 'F': 6.0}\",\"('F', 'Na', 'U')\",OTHERS,True\nmp-1120819,\"{'Na': 8.0, 'Co': 16.0, 'Bi': 8.0, 'O': 48.0}\",\"('Bi', 'Co', 'Na', 'O')\",OTHERS,True\nmp-755473,\"{'Li': 3.0, 'V': 1.0, 'Cr': 3.0, 'O': 8.0}\",\"('Cr', 'Li', 'O', 'V')\",OTHERS,True\nmvc-15452,\"{'Y': 1.0, 'Mo': 1.0, 'O': 3.0}\",\"('Mo', 'O', 'Y')\",OTHERS,True\nmp-571636,\"{'In': 2.0, 'Cl': 2.0}\",\"('Cl', 'In')\",OTHERS,True\nmp-989628,\"{'Y': 4.0, 'Re': 4.0, 'N': 12.0}\",\"('N', 'Re', 'Y')\",OTHERS,True\nmp-1181813,\"{'Fe': 24.0, 'O': 32.0}\",\"('Fe', 'O')\",OTHERS,True\nmp-1177398,\"{'Li': 4.0, 'Mn': 3.0, 'V': 1.0, 'O': 8.0}\",\"('Li', 'Mn', 'O', 'V')\",OTHERS,True\nmp-1247002,\"{'Zr': 2.0, 'Cr': 2.0, 'Ag': 2.0, 'S': 8.0}\",\"('Ag', 'Cr', 'S', 'Zr')\",OTHERS,True\nmp-1093601,\"{'Li': 1.0, 'Ca': 2.0, 'Zn': 1.0}\",\"('Ca', 'Li', 'Zn')\",OTHERS,True\nmp-1212628,\"{'Ho': 12.0, 'Ga': 60.0, 'Ru': 16.0}\",\"('Ga', 'Ho', 'Ru')\",OTHERS,True\nmp-1189414,\"{'Yb': 4.0, 'Si': 12.0}\",\"('Si', 'Yb')\",OTHERS,True\nmp-1096646,\"{'Li': 2.0, 'Y': 1.0, 'Ga': 1.0}\",\"('Ga', 'Li', 'Y')\",OTHERS,True\nmp-1080612,\"{'Gd': 3.0, 'Al': 3.0, 'Cu': 3.0}\",\"('Al', 'Cu', 'Gd')\",OTHERS,True\nmp-5733,\"{'O': 36.0, 'Si': 12.0, 'Ca': 12.0}\",\"('Ca', 'O', 'Si')\",OTHERS,True\nmp-504650,\"{'La': 6.0, 'Cu': 2.0, 'Si': 2.0, 'S': 14.0}\",\"('Cu', 'La', 'S', 'Si')\",OTHERS,True\nmp-542280,\"{'Ca': 2.0, 'P': 12.0, 'Na': 8.0, 'O': 36.0}\",\"('Ca', 'Na', 'O', 'P')\",OTHERS,True\nmp-1181830,\"{'Ca': 4.0, 'C': 8.0, 'O': 16.0}\",\"('C', 'Ca', 'O')\",OTHERS,True\nmp-758336,\"{'Li': 6.0, 'V': 2.0, 'P': 6.0, 'O': 22.0}\",\"('Li', 'O', 'P', 'V')\",OTHERS,True\nmp-1183482,\"{'Ca': 2.0, 'Cu': 1.0, 'Rh': 1.0}\",\"('Ca', 'Cu', 'Rh')\",OTHERS,True\nmp-755241,\"{'Mn': 8.0, 'O': 8.0, 'F': 8.0}\",\"('F', 'Mn', 'O')\",OTHERS,True\nmp-1209892,\"{'Nd': 1.0, 'Fe': 4.0, 'As': 12.0}\",\"('As', 'Fe', 'Nd')\",OTHERS,True\nmp-1232437,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1184722,\"{'Ho': 6.0, 'Th': 2.0}\",\"('Ho', 'Th')\",OTHERS,True\nmp-1025066,\"{'Er': 1.0, 'In': 1.0, 'Co': 4.0}\",\"('Co', 'Er', 'In')\",OTHERS,True\nmp-754962,\"{'Mn': 2.0, 'Fe': 1.0, 'O': 6.0}\",\"('Fe', 'Mn', 'O')\",OTHERS,True\nmp-1217477,\"{'Tb': 1.0, 'Pr': 1.0, 'Fe': 4.0}\",\"('Fe', 'Pr', 'Tb')\",OTHERS,True\nCu 46 Sc 16 Al 38,\"{'Cu': 46.0, 'Sc': 16.0, 'Al': 38.0}\",\"('Al', 'Cu', 'Sc')\",QC,True\nmp-26387,\"{'Li': 4.0, 'Ni': 4.0, 'P': 4.0, 'O': 16.0}\",\"('Li', 'Ni', 'O', 'P')\",OTHERS,True\nmp-766091,\"{'Li': 4.0, 'La': 5.0, 'Ti': 6.0, 'Nb': 2.0, 'O': 26.0}\",\"('La', 'Li', 'Nb', 'O', 'Ti')\",OTHERS,True\nmp-632329,{'C': 2.0},\"('C',)\",OTHERS,True\nmp-774775,\"{'Na': 4.0, 'Mn': 4.0, 'P': 4.0, 'C': 4.0, 'O': 28.0}\",\"('C', 'Mn', 'Na', 'O', 'P')\",OTHERS,True\nmp-759689,\"{'V': 6.0, 'O': 11.0, 'F': 1.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmp-754103,\"{'Ca': 2.0, 'Ni': 2.0, 'O': 6.0}\",\"('Ca', 'Ni', 'O')\",OTHERS,True\nmp-1177257,\"{'Li': 4.0, 'Ti': 3.0, 'V': 3.0, 'Ni': 2.0, 'O': 16.0}\",\"('Li', 'Ni', 'O', 'Ti', 'V')\",OTHERS,True\nmp-1110640,\"{'K': 2.0, 'In': 1.0, 'As': 1.0, 'Br': 6.0}\",\"('As', 'Br', 'In', 'K')\",OTHERS,True\nmp-510057,\"{'Gd': 12.0, 'Nb': 4.0, 'S': 12.0, 'O': 16.0}\",\"('Gd', 'Nb', 'O', 'S')\",OTHERS,True\nmp-17173,\"{'S': 12.0, 'Rh': 8.0}\",\"('Rh', 'S')\",OTHERS,True\nmvc-10598,\"{'Ba': 4.0, 'Mg': 4.0, 'Co': 4.0, 'F': 28.0}\",\"('Ba', 'Co', 'F', 'Mg')\",OTHERS,True\nmp-974065,\"{'Lu': 1.0, 'Sc': 1.0, 'Pd': 2.0}\",\"('Lu', 'Pd', 'Sc')\",OTHERS,True\nmp-864876,\"{'Tb': 1.0, 'In': 1.0, 'Rh': 2.0}\",\"('In', 'Rh', 'Tb')\",OTHERS,True\nmp-1225861,\"{'Dy': 14.0, 'Au': 51.0}\",\"('Au', 'Dy')\",OTHERS,True\nmp-1094626,\"{'Mg': 10.0, 'Ga': 2.0}\",\"('Ga', 'Mg')\",OTHERS,True\nmp-1205196,\"{'Li': 10.0, 'Ce': 10.0, 'Si': 8.0, 'N': 24.0}\",\"('Ce', 'Li', 'N', 'Si')\",OTHERS,True\nmp-1196242,\"{'Dy': 6.0, 'Al': 4.0, 'Ni': 12.0, 'H': 18.0}\",\"('Al', 'Dy', 'H', 'Ni')\",OTHERS,True\nmp-637600,\"{'Gd': 6.0, 'Co': 1.0, 'Br': 10.0}\",\"('Br', 'Co', 'Gd')\",OTHERS,True\nmp-771717,\"{'Mn': 16.0, 'O': 24.0}\",\"('Mn', 'O')\",OTHERS,True\nmp-1226382,\"{'Cr': 4.0, 'Cd': 2.0, 'Se': 2.0, 'S': 6.0}\",\"('Cd', 'Cr', 'S', 'Se')\",OTHERS,True\nmp-755393,\"{'Sr': 2.0, 'La': 2.0, 'I': 10.0}\",\"('I', 'La', 'Sr')\",OTHERS,True\nmp-1187488,\"{'Ti': 1.0, 'Te': 1.0, 'O': 3.0}\",\"('O', 'Te', 'Ti')\",OTHERS,True\nmp-1099244,\"{'Mg': 3.0, 'W': 1.0, 'O': 4.0}\",\"('Mg', 'O', 'W')\",OTHERS,True\nmp-1246277,\"{'Na': 12.0, 'Re': 2.0, 'N': 8.0}\",\"('N', 'Na', 'Re')\",OTHERS,True\nmp-1245017,\"{'Y': 40.0, 'O': 60.0}\",\"('O', 'Y')\",OTHERS,True\nmp-540806,\"{'Ir': 3.0, 'Ca': 6.0, 'O': 12.0}\",\"('Ca', 'Ir', 'O')\",OTHERS,True\nmp-1214640,\"{'Ba': 6.0, 'Ce': 2.0, 'Ir': 4.0, 'O': 18.0}\",\"('Ba', 'Ce', 'Ir', 'O')\",OTHERS,True\nmp-771957,\"{'Ta': 8.0, 'Pb': 4.0, 'O': 24.0}\",\"('O', 'Pb', 'Ta')\",OTHERS,True\nmp-560268,\"{'K': 4.0, 'Mo': 6.0, 'As': 8.0, 'O': 40.0}\",\"('As', 'K', 'Mo', 'O')\",OTHERS,True\nmp-1094724,\"{'Mg': 3.0, 'Sb': 1.0}\",\"('Mg', 'Sb')\",OTHERS,True\nmvc-5466,\"{'Co': 16.0, 'O': 32.0}\",\"('Co', 'O')\",OTHERS,True\nmp-768579,\"{'Na': 4.0, 'Mn': 2.0, 'B': 2.0, 'P': 2.0, 'O': 14.0}\",\"('B', 'Mn', 'Na', 'O', 'P')\",OTHERS,True\nmp-1205479,\"{'K': 44.0, 'Sb': 22.0, 'F': 110.0}\",\"('F', 'K', 'Sb')\",OTHERS,True\nmp-1214564,\"{'Ba': 8.0, 'Na': 8.0, 'Cr': 8.0, 'F': 48.0}\",\"('Ba', 'Cr', 'F', 'Na')\",OTHERS,True\nmp-777874,\"{'Li': 12.0, 'Mn': 2.0, 'V': 6.0, 'P': 12.0, 'O': 48.0}\",\"('Li', 'Mn', 'O', 'P', 'V')\",OTHERS,True\nmp-19155,\"{'Cr': 4.0, 'Hg': 4.0, 'O': 16.0}\",\"('Cr', 'Hg', 'O')\",OTHERS,True\nmp-1094437,\"{'Mg': 8.0, 'Zn': 4.0}\",\"('Mg', 'Zn')\",OTHERS,True\nmp-676260,\"{'Ag': 9.0, 'Te': 4.0, 'Br': 3.0}\",\"('Ag', 'Br', 'Te')\",OTHERS,True\nmp-1025268,\"{'Pu': 2.0, 'W': 2.0, 'C': 3.0}\",\"('C', 'Pu', 'W')\",OTHERS,True\nmp-1102875,\"{'Er': 8.0, 'Al': 4.0}\",\"('Al', 'Er')\",OTHERS,True\nmp-720995,\"{'Sr': 8.0, 'C': 8.0, 'N': 12.0}\",\"('C', 'N', 'Sr')\",OTHERS,True\nmp-1219640,\"{'Rb': 3.0, 'I': 2.0, 'Br': 1.0}\",\"('Br', 'I', 'Rb')\",OTHERS,True\nmp-1079481,\"{'Al': 2.0, 'S': 2.0, 'Br': 6.0}\",\"('Al', 'Br', 'S')\",OTHERS,True\nmp-559134,\"{'Eu': 6.0, 'As': 4.0, 'S': 16.0}\",\"('As', 'Eu', 'S')\",OTHERS,True\nmp-1213307,\"{'Cs': 2.0, 'Nd': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Cs', 'Mo', 'Nd', 'O')\",OTHERS,True\nmp-1205613,\"{'Rb': 3.0, 'Sm': 1.0, 'F': 6.0}\",\"('F', 'Rb', 'Sm')\",OTHERS,True\nmp-11666,\"{'Zn': 6.0, 'Ge': 3.0, 'Pr': 2.0}\",\"('Ge', 'Pr', 'Zn')\",OTHERS,True\nmp-1199580,\"{'Zn': 2.0, 'Cu': 2.0, 'C': 8.0, 'O': 24.0}\",\"('C', 'Cu', 'O', 'Zn')\",OTHERS,True\nmp-770731,\"{'Li': 4.0, 'Zr': 8.0, 'O': 16.0}\",\"('Li', 'O', 'Zr')\",OTHERS,True\nmp-1106337,\"{'Mn': 4.0, 'Pb': 4.0, 'O': 12.0}\",\"('Mn', 'O', 'Pb')\",OTHERS,True\nmp-1245403,\"{'Pd': 3.0, 'C': 24.0, 'N': 18.0}\",\"('C', 'N', 'Pd')\",OTHERS,True\nmp-1224874,\"{'Gd': 2.0, 'Si': 3.0}\",\"('Gd', 'Si')\",OTHERS,True\nmp-636934,\"{'Bi': 12.0, 'O': 18.0}\",\"('Bi', 'O')\",OTHERS,True\nmp-14643,\"{'Te': 12.0, 'Er': 8.0}\",\"('Er', 'Te')\",OTHERS,True\nmp-562050,\"{'Cs': 6.0, 'Na': 3.0, 'Ti': 3.0, 'F': 18.0}\",\"('Cs', 'F', 'Na', 'Ti')\",OTHERS,True\nmp-1654,\"{'Ni': 4.0, 'Ce': 2.0}\",\"('Ce', 'Ni')\",OTHERS,True\nmp-754085,\"{'Li': 4.0, 'Bi': 2.0, 'S': 4.0}\",\"('Bi', 'Li', 'S')\",OTHERS,True\nmp-1213293,\"{'Cs': 2.0, 'Tb': 2.0, 'Mo': 4.0, 'O': 16.0}\",\"('Cs', 'Mo', 'O', 'Tb')\",OTHERS,True\nmp-1202486,\"{'La': 28.0, 'Ru': 12.0}\",\"('La', 'Ru')\",OTHERS,True\nmp-1246113,\"{'Cr': 4.0, 'Fe': 6.0, 'N': 8.0}\",\"('Cr', 'Fe', 'N')\",OTHERS,True\nmp-1015582,\"{'Cr': 4.0, 'N': 8.0}\",\"('Cr', 'N')\",OTHERS,True\nmp-1245702,\"{'Ca': 10.0, 'Ir': 4.0, 'N': 12.0}\",\"('Ca', 'Ir', 'N')\",OTHERS,True\nmp-1217895,\"{'Ta': 1.0, 'Mo': 1.0}\",\"('Mo', 'Ta')\",OTHERS,True\nmp-3205,\"{'C': 2.0, 'O': 6.0, 'Ca': 2.0}\",\"('C', 'Ca', 'O')\",OTHERS,True\nmp-974341,\"{'Ru': 2.0, 'Rh': 6.0}\",\"('Rh', 'Ru')\",OTHERS,True\nmp-779357,\"{'V': 6.0, 'O': 2.0, 'F': 22.0}\",\"('F', 'O', 'V')\",OTHERS,True\nmvc-2670,\"{'Ta': 4.0, 'Zn': 4.0, 'Ni': 2.0, 'O': 16.0}\",\"('Ni', 'O', 'Ta', 'Zn')\",OTHERS,True\nmp-569952,\"{'K': 8.0, 'Cu': 4.0, 'Cl': 12.0}\",\"('Cl', 'Cu', 'K')\",OTHERS,True\nmp-1104205,\"{'Ba': 1.0, 'Er': 1.0, 'Fe': 4.0, 'O': 7.0}\",\"('Ba', 'Er', 'Fe', 'O')\",OTHERS,True\nmp-1184577,\"{'Ho': 2.0, 'Os': 1.0, 'Rh': 1.0}\",\"('Ho', 'Os', 'Rh')\",OTHERS,True\nmp-21410,\"{'Fe': 4.0, 'S': 4.0}\",\"('Fe', 'S')\",OTHERS,True\nmp-25813,\"{'Li': 6.0, 'O': 32.0, 'P': 8.0, 'Fe': 6.0}\",\"('Fe', 'Li', 'O', 'P')\",OTHERS,True\nmp-1135,\"{'Nb': 1.0, 'Pd': 3.0}\",\"('Nb', 'Pd')\",OTHERS,True\nmp-780462,\"{'Na': 12.0, 'Mn': 4.0, 'P': 2.0, 'C': 8.0, 'O': 32.0}\",\"('C', 'Mn', 'Na', 'O', 'P')\",OTHERS,True\nmp-1175970,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1203397,\"{'Zr': 4.0, 'Cd': 4.0, 'H': 40.0, 'C': 24.0, 'O': 68.0}\",\"('C', 'Cd', 'H', 'O', 'Zr')\",OTHERS,True\nmp-557661,\"{'Sb': 16.0, 'Pd': 4.0, 'C': 16.0, 'O': 16.0, 'F': 88.0}\",\"('C', 'F', 'O', 'Pd', 'Sb')\",OTHERS,True\nmp-1101545,\"{'Li': 4.0, 'Co': 4.0, 'P': 16.0, 'O': 48.0}\",\"('Co', 'Li', 'O', 'P')\",OTHERS,True\nmp-555392,\"{'K': 12.0, 'Na': 2.0, 'Au': 4.0, 'I': 2.0, 'O': 16.0}\",\"('Au', 'I', 'K', 'Na', 'O')\",OTHERS,True\nmp-1191428,\"{'Sc': 2.0, 'Co': 12.0, 'P': 7.0}\",\"('Co', 'P', 'Sc')\",OTHERS,True\nmp-1173448,\"{'Re': 12.0, 'Se': 8.0, 'Cl': 20.0}\",\"('Cl', 'Re', 'Se')\",OTHERS,True\nmp-753441,\"{'Li': 4.0, 'Mn': 4.0, 'O': 2.0, 'F': 12.0}\",\"('F', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-15318,\"{'F': 6.0, 'Na': 1.0, 'Rb': 2.0, 'Ho': 1.0}\",\"('F', 'Ho', 'Na', 'Rb')\",OTHERS,True\nmp-567446,\"{'La': 46.0, 'Cd': 8.0, 'Pt': 14.0}\",\"('Cd', 'La', 'Pt')\",OTHERS,True\nmp-1175046,\"{'Li': 7.0, 'Mn': 2.0, 'Co': 3.0, 'O': 12.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-985283,\"{'Ag': 3.0, 'Ge': 1.0}\",\"('Ag', 'Ge')\",OTHERS,True\nmp-984726,\"{'Dy': 1.0, 'Al': 8.0, 'Cu': 4.0}\",\"('Al', 'Cu', 'Dy')\",OTHERS,True\nmp-1196275,\"{'Ba': 8.0, 'Fe': 8.0, 'O': 8.0, 'F': 40.0}\",\"('Ba', 'F', 'Fe', 'O')\",OTHERS,True\nmp-1104171,\"{'Yb': 2.0, 'Ga': 4.0, 'Se': 8.0}\",\"('Ga', 'Se', 'Yb')\",OTHERS,True\nmp-15108,\"{'O': 40.0, 'As': 8.0, 'Rb': 8.0, 'Sn': 8.0}\",\"('As', 'O', 'Rb', 'Sn')\",OTHERS,True\nmp-17491,\"{'Li': 4.0, 'Ge': 12.0, 'Ba': 8.0}\",\"('Ba', 'Ge', 'Li')\",OTHERS,True\nmp-1205361,\"{'Te': 12.0, 'Rh': 2.0, 'I': 6.0}\",\"('I', 'Rh', 'Te')\",OTHERS,True\nmp-1178273,\"{'Fe': 10.0, 'O': 4.0, 'F': 16.0}\",\"('F', 'Fe', 'O')\",OTHERS,True\nmvc-12970,\"{'Mg': 2.0, 'Fe': 4.0, 'S': 8.0}\",\"('Fe', 'Mg', 'S')\",OTHERS,True\nmp-865156,\"{'Dy': 2.0, 'Zn': 1.0, 'Ga': 1.0}\",\"('Dy', 'Ga', 'Zn')\",OTHERS,True\nmp-1038168,\"{'Mg': 30.0, 'Mn': 1.0, 'V': 1.0, 'O': 32.0}\",\"('Mg', 'Mn', 'O', 'V')\",OTHERS,True\nmp-20704,\"{'U': 1.0, 'Mn': 4.0, 'Al': 8.0}\",\"('Al', 'Mn', 'U')\",OTHERS,True\nmp-980205,\"{'Y': 4.0, 'B': 16.0, 'Os': 4.0}\",\"('B', 'Os', 'Y')\",OTHERS,True\nmp-4669,\"{'O': 64.0, 'Mo': 16.0, 'Th': 8.0}\",\"('Mo', 'O', 'Th')\",OTHERS,True\nmp-33737,\"{'Mn': 3.0, 'Cu': 3.0, 'O': 8.0}\",\"('Cu', 'Mn', 'O')\",OTHERS,True\nmvc-14333,\"{'V': 2.0, 'Zn': 2.0, 'F': 10.0}\",\"('F', 'V', 'Zn')\",OTHERS,True\nmp-1178743,\"{'Y': 4.0, 'Al': 1.0, 'Si': 2.0, 'O': 10.0, 'F': 5.0}\",\"('Al', 'F', 'O', 'Si', 'Y')\",OTHERS,True\nmp-674804,\"{'Sm': 4.0, 'Pb': 2.0, 'Se': 8.0}\",\"('Pb', 'Se', 'Sm')\",OTHERS,True\nmp-8710,\"{'O': 8.0, 'Ca': 2.0, 'Pt': 3.0}\",\"('Ca', 'O', 'Pt')\",OTHERS,True\nmp-1193652,\"{'Re': 4.0, 'Te': 8.0, 'Cl': 16.0}\",\"('Cl', 'Re', 'Te')\",OTHERS,True\nmp-7138,\"{'Sb': 4.0, 'Yb': 2.0}\",\"('Sb', 'Yb')\",OTHERS,True\nmp-1225677,\"{'Cu': 1.0, 'Au': 1.0}\",\"('Au', 'Cu')\",OTHERS,True\nmvc-867,\"{'Mg': 2.0, 'Co': 6.0, 'P': 8.0, 'O': 28.0}\",\"('Co', 'Mg', 'O', 'P')\",OTHERS,True\nmp-1078956,\"{'Pt': 1.0, 'N': 4.0, 'Cl': 2.0, 'O': 1.0}\",\"('Cl', 'N', 'O', 'Pt')\",OTHERS,True\nmp-1232372,\"{'Sc': 2.0, 'B': 2.0, 'C': 2.0}\",\"('B', 'C', 'Sc')\",OTHERS,True\nmp-18772,\"{'N': 4.0, 'O': 4.0, 'Na': 8.0, 'Mo': 2.0}\",\"('Mo', 'N', 'Na', 'O')\",OTHERS,True\nmp-696878,\"{'K': 3.0, 'Ca': 1.0, 'P': 2.0, 'H': 1.0, 'O': 8.0}\",\"('Ca', 'H', 'K', 'O', 'P')\",OTHERS,True\nmp-3884,\"{'O': 14.0, 'Sn': 4.0, 'Ho': 4.0}\",\"('Ho', 'O', 'Sn')\",OTHERS,True\nmp-764043,\"{'Li': 6.0, 'Mn': 6.0, 'Ni': 2.0, 'O': 16.0}\",\"('Li', 'Mn', 'Ni', 'O')\",OTHERS,True\nmp-1038154,\"{'Mg': 30.0, 'Mn': 1.0, 'Sn': 1.0, 'O': 32.0}\",\"('Mg', 'Mn', 'O', 'Sn')\",OTHERS,True\nmp-1228077,\"{'Ba': 4.0, 'Na': 1.0, 'Ir': 3.0, 'O': 12.0}\",\"('Ba', 'Ir', 'Na', 'O')\",OTHERS,True\nmp-20038,\"{'P': 2.0, 'Co': 2.0, 'Eu': 1.0}\",\"('Co', 'Eu', 'P')\",OTHERS,True\nmp-3890,\"{'Cr': 2.0, 'Fe': 15.0, 'Sm': 2.0}\",\"('Cr', 'Fe', 'Sm')\",OTHERS,True\nmp-1247009,\"{'V': 8.0, 'Fe': 3.0, 'N': 8.0}\",\"('Fe', 'N', 'V')\",OTHERS,True\nmp-542081,\"{'La': 4.0, 'P': 8.0, 'S': 28.0, 'K': 8.0}\",\"('K', 'La', 'P', 'S')\",OTHERS,True\nmp-1039999,\"{'Na': 1.0, 'La': 1.0, 'Mg': 30.0, 'O': 32.0}\",\"('La', 'Mg', 'Na', 'O')\",OTHERS,True\nmp-1185684,\"{'Mg': 16.0, 'Al': 12.0, 'O': 1.0}\",\"('Al', 'Mg', 'O')\",OTHERS,True\nAl 70 Ni 15 Fe 15,\"{'Al': 70.0, 'Ni': 15.0, 'Fe': 15.0}\",\"('Al', 'Fe', 'Ni')\",QC,True\nmp-29088,\"{'N': 4.0, 'Ge': 4.0, 'Sr': 6.0}\",\"('Ge', 'N', 'Sr')\",OTHERS,True\nmp-1201569,\"{'Sc': 10.0, 'V': 5.0, 'O': 25.0}\",\"('O', 'Sc', 'V')\",OTHERS,True\nmp-778169,\"{'Li': 2.0, 'Cu': 4.0, 'S': 6.0, 'O': 24.0}\",\"('Cu', 'Li', 'O', 'S')\",OTHERS,True\nmp-1076592,\"{'Ba': 1.0, 'Sr': 7.0, 'Mn': 1.0, 'Fe': 7.0, 'O': 24.0}\",\"('Ba', 'Fe', 'Mn', 'O', 'Sr')\",OTHERS,True\nmp-755993,\"{'Mn': 3.0, 'Nb': 2.0, 'Fe': 3.0, 'O': 16.0}\",\"('Fe', 'Mn', 'Nb', 'O')\",OTHERS,True\nmp-754889,\"{'Li': 2.0, 'Mn': 4.0, 'B': 4.0, 'O': 12.0}\",\"('B', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-1210156,\"{'Re': 2.0, 'Pd': 1.0, 'N': 4.0, 'O': 8.0}\",\"('N', 'O', 'Pd', 'Re')\",OTHERS,True\nmp-1182808,\"{'Cr': 4.0, 'P': 8.0, 'H': 64.0, 'N': 12.0, 'O': 40.0}\",\"('Cr', 'H', 'N', 'O', 'P')\",OTHERS,True\nmp-602355,\"{'Cr': 6.0, 'H': 2.0, 'O': 16.0}\",\"('Cr', 'H', 'O')\",OTHERS,True\nmp-979416,\"{'Ta': 2.0, 'Be': 2.0, 'O': 5.0}\",\"('Be', 'O', 'Ta')\",OTHERS,True\nmp-1079250,\"{'Sm': 2.0, 'Ni': 2.0, 'Sb': 4.0}\",\"('Ni', 'Sb', 'Sm')\",OTHERS,True\nmp-22875,\"{'Br': 1.0, 'Tl': 1.0}\",\"('Br', 'Tl')\",OTHERS,True\nmp-1184421,\"{'Gd': 6.0, 'Cd': 2.0}\",\"('Cd', 'Gd')\",OTHERS,True\nmp-1100745,\"{'Li': 9.0, 'Mn': 2.0, 'Co': 5.0, 'O': 16.0}\",\"('Co', 'Li', 'Mn', 'O')\",OTHERS,True\nmp-24111,\"{'H': 24.0, 'O': 28.0, 'S': 4.0, 'Co': 2.0, 'Rb': 4.0}\",\"('Co', 'H', 'O', 'Rb', 'S')\",OTHERS,True\nmp-1180144,\"{'Mn': 1.0, 'Mo': 3.0}\",\"('Mn', 'Mo')\",OTHERS,True\nmp-556745,\"{'Tl': 4.0, 'C': 4.0, 'O': 8.0}\",\"('C', 'O', 'Tl')\",OTHERS,True\nmp-1215244,\"{'Zr': 1.0, 'Nb': 2.0, 'Pd': 9.0}\",\"('Nb', 'Pd', 'Zr')\",OTHERS,True\nmp-41191,\"{'F': 1.0, 'Na': 3.0, 'O': 10.0, 'P': 2.0, 'Ti': 2.0}\",\"('F', 'Na', 'O', 'P', 'Ti')\",OTHERS,True\nmp-1207921,\"{'U': 2.0, 'Fe': 8.0, 'B': 2.0}\",\"('B', 'Fe', 'U')\",OTHERS,True\nmp-1184948,\"{'K': 1.0, 'Mn': 1.0, 'O': 3.0}\",\"('K', 'Mn', 'O')\",OTHERS,True\nmvc-8328,\"{'Zn': 1.0, 'Fe': 4.0, 'Cu': 3.0, 'O': 12.0}\",\"('Cu', 'Fe', 'O', 'Zn')\",OTHERS,True\nmp-985587,\"{'Al': 6.0, 'O': 9.0}\",\"('Al', 'O')\",OTHERS,True\nmp-1223322,\"{'K': 1.0, 'Rb': 1.0, 'Mn': 1.0, 'F': 6.0}\",\"('F', 'K', 'Mn', 'Rb')\",OTHERS,True\nmp-1216066,\"{'Y': 2.0, 'Co': 1.0, 'Ru': 3.0}\",\"('Co', 'Ru', 'Y')\",OTHERS,True\nmp-1027645,\"{'Mo': 3.0, 'W': 1.0, 'S': 8.0}\",\"('Mo', 'S', 'W')\",OTHERS,True\nmp-1178643,\"{'Zn': 1.0, 'Cr': 1.0, 'Cu': 3.0, 'Se': 4.0}\",\"('Cr', 'Cu', 'Se', 'Zn')\",OTHERS,True\nmp-783904,\"{'Ni': 2.0, 'H': 40.0, 'S': 4.0, 'N': 4.0, 'O': 28.0}\",\"('H', 'N', 'Ni', 'O', 'S')\",OTHERS,True\nmp-683897,\"{'Pr': 6.0, 'Sn': 26.0, 'Rh': 8.0}\",\"('Pr', 'Rh', 'Sn')\",OTHERS,True\nmp-778793,\"{'Li': 4.0, 'Fe': 3.0, 'Si': 3.0, 'O': 12.0}\",\"('Fe', 'Li', 'O', 'Si')\",OTHERS,True\nmp-766308,\"{'Ba': 4.0, 'Ca': 4.0, 'I': 16.0}\",\"('Ba', 'Ca', 'I')\",OTHERS,True\nmp-686280,\"{'Nd': 12.0, 'Al': 3.0, 'Si': 15.0, 'N': 21.0, 'O': 21.0}\",\"('Al', 'N', 'Nd', 'O', 'Si')\",OTHERS,True\nmp-1216446,\"{'V': 9.0, 'Te': 8.0}\",\"('Te', 'V')\",OTHERS,True\nmp-626872,\"{'V': 12.0, 'H': 8.0, 'O': 32.0}\",\"('H', 'O', 'V')\",OTHERS,True\nmp-5960,\"{'O': 12.0, 'Ca': 6.0, 'U': 2.0}\",\"('Ca', 'O', 'U')\",OTHERS,True\nmp-1198997,\"{'C': 16.0, 'S': 8.0, 'N': 8.0, 'O': 8.0, 'F': 8.0}\",\"('C', 'F', 'N', 'O', 'S')\",OTHERS,True\nmp-1219422,\"{'Sc': 28.0, 'As': 12.0}\",\"('As', 'Sc')\",OTHERS,True\nmp-757593,\"{'Li': 4.0, 'Co': 5.0, 'Sb': 1.0, 'O': 12.0}\",\"('Co', 'Li', 'O', 'Sb')\",OTHERS,True\nmp-1245874,\"{'Ca': 6.0, 'B': 6.0, 'N': 10.0}\",\"('B', 'Ca', 'N')\",OTHERS,True\n"
  },
  {
    "path": "samples/process_dataset_usgs.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"4ef1599e\",\n   \"metadata\": {},\n   \"source\": [\n    \"## Obtain the compact csv file of USGS dataset\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"id\": \"e316660c\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# python packages used in the sample codes\\n\",\n    \"\\n\",\n    \"import pandas as pd\\n\",\n    \"import os\\n\",\n    \"import numpy as np\\n\",\n    \"import csv\\n\",\n    \"import glob\\n\",\n    \"import codecs\\n\",\n    \"import cirpy\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"5f32ca10\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### Download spectrum data and CAS registry number and transform to SMILES\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"id\": \"026675e0\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"input_file = sorted(glob.glob(\\\"usgs_splib07/ASCIIdata/ASCIIdata_splib07a/ChapterO_OrganicCompounds/*AREF.txt\\\"))\\n\",\n    \"smiles_list = []\\n\",\n    \"spectrum_list = []\\n\",\n    \"smiles_error_list = []\\n\",\n    \"\\n\",\n    \"for i, file_name in enumerate(input_file):\\n\",\n    \"    file_html = file_name.replace('txt', 'html')\\\\\\n\",\n    \"                         .replace('ASCIIdata_splib07a/ChapterO_OrganicCompounds', '')\\\\\\n\",\n    \"                         .replace('splib07a_', '')\\\\\\n\",\n    \"                         .replace('ASCIIdata/', 'HTMLmetadata')\\n\",\n    \"    with codecs.open(file_html, 'r', 'utf-8', 'ignore') as fileobj:\\n\",\n    \"        lines = fileobj.readlines()\\n\",\n    \"        line_cas = [line for line in lines if 'CAS' in line]\\n\",\n    \"        cas = ''.join(line_cas)                   \\n\",\n    \"        cas = cas[7:]\\n\",\n    \"        if line_cas!=[]:\\n\",\n    \"            to_smiles = cirpy.resolve(cas, \\\"smiles\\\")\\n\",\n    \"            if to_smiles == None: \\n\",\n    \"                smiles_error_list.append(file_html)\\n\",\n    \"            elif to_smiles != None:\\n\",\n    \"                smiles_list = np.append(smiles_list,to_smiles)\\n\",\n    \"                spectrum_data = pd.read_table(file_name)\\n\",\n    \"                spectrum_data = spectrum_data.astype('float32')\\n\",\n    \"                spectrum_list = np.append(spectrum_list,spectrum_data)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"a2fac7a4\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### Remove duplicate data and converting reflectance to absorbance\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"id\": \"44fd683c\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"spectrum_list = spectrum_list.reshape(len(smiles_list),-1)\\n\",\n    \"spectrum_list = np.array(spectrum_list, dtype='float32')\\n\",\n    \"\\n\",\n    \"duplicate_list = [1, 2, 4, 6, 8, 10, 12, 14, 16, 18, 21, 26, 28, 31, 32,\\\\\\n\",\n    \"                  33, 36, 37, 40, 42, 43, 48, 53, 55, 57, 59, 61, 63, 66,\\\\\\n\",\n    \"                  68, 70, 73, 75, 77, 79, 80, 82, 83, 84, 86, 87, 93, 96,\\\\\\n\",\n    \"                  97, 98, 104, 105, 106, 110, 111, 113, 117]\\n\",\n    \"smiles_list_nodupli = np.delete(smiles_list,[duplicate_list])\\n\",\n    \"spectrum_list_nodupli = np.delete(spectrum_list,[duplicate_list],0)\\n\",\n    \"spectrum_list_nodupli = 2 - np.log10(spectrum_list_nodupli)\\n\",\n    \"spectrum_list_nodupli = np.array(spectrum_list_nodupli, dtype='float32')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"id\": \"60e3e847\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### Make Dataset_USGS.csv\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"id\": \"1b0c37c4\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"df = pd.DataFrame(spectrum_list_nodupli)\\n\",\n    \"df.insert(0, 'SMILES', smiles_list_nodupli)\\n\",\n    \"df = df.sample(frac=1,random_state=1)\\n\",\n    \"df.to_csv('Dataset_USGS.csv')\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"id\": \"edbbbbb4\",\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3 (ipykernel)\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.13\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 5\n}\n"
  },
  {
    "path": "samples/random_nn_model_and_training.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {\n    \"slideshow\": {\n     \"slide_type\": \"-\"\n    }\n   },\n   \"source\": [\n    \"# Random NN modes\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"This tutorial shows how to build neural network models.\\n\",\n    \"We will learn how to calculate compositional descriptors using `xenonpy.descriptor.Compositions` calculator and train our model using `xenonpy.model.training` modules.\\n\",\n    \"\\n\",\n    \"In this tutorial, we will use some inorganic sample data from materials project. \\n\",\n    \"If you don't have it, please see https://github.com/yoshida-lab/XenonPy/blob/master/samples/build_sample_data.ipynb.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### useful functions\\n\",\n    \"\\n\",\n    \"Running the following cell will load some commonly used packages, such as `numpy`, `pandas`, and so on. It will also import some in-house functions used in this tutorial. See `samples/tools.ipynb` to check what will be imported.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run tools.ipynb\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"## Sequential linear model\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"We will use `xenonpy.model.SequentialLinear` to build a sequential linear model. The basic layer in `SequentialLinear` model is `xenonpy.model.LinearLayer`\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"\\u001b[0;31mInit signature:\\u001b[0m\\n\",\n       \"\\u001b[0mSequentialLinear\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0min_features\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mout_features\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mbias\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mbool\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mTrue\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m*\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mh_neurons\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mTuple\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mfloat\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m...\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mTuple\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m...\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;34m(\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mh_bias\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mbool\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mTuple\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mbool\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m...\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mTrue\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mh_dropouts\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mfloat\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mTuple\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mfloat\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m...\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;36m0.1\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mh_normalizers\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mfloat\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mTuple\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mfloat\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m...\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;36m0.1\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mh_activation_funcs\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mCallable\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mTuple\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mCallable\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m...\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mReLU\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n       \"\\u001b[0;31mDocstring:\\u001b[0m     \\n\",\n       \"Sequential model with linear layers and configurable other hype-parameters.\\n\",\n       \"e.g. ``dropout``, ``hidden layers``\\n\",\n       \"\\u001b[0;31mInit docstring:\\u001b[0m\\n\",\n       \"Parameters\\n\",\n       \"----------\\n\",\n       \"in_features\\n\",\n       \"    Size of input.\\n\",\n       \"out_features\\n\",\n       \"    Size of output.\\n\",\n       \"bias\\n\",\n       \"    Enable ``bias`` in input layer.\\n\",\n       \"h_neurons\\n\",\n       \"    Number of neurons in hidden layers.\\n\",\n       \"    Can be a tuple of floats. In that case,\\n\",\n       \"    all these numbers will be used to calculate the neuron numbers.\\n\",\n       \"    e.g. (0.5, 0.4, ...) will be expanded as (in_features * 0.5, in_features * 0.4, ...)\\n\",\n       \"h_bias\\n\",\n       \"    ``bias`` in hidden layers.\\n\",\n       \"h_dropouts\\n\",\n       \"    Probabilities of dropout in hidden layers.\\n\",\n       \"h_normalizers\\n\",\n       \"    Momentum of batched normalizers in hidden layers.\\n\",\n       \"h_activation_funcs\\n\",\n       \"    Activation functions in hidden layers.\\n\",\n       \"\\u001b[0;31mFile:\\u001b[0m           ~/projects/XenonPy/xenonpy/model/sequential.py\\n\",\n       \"\\u001b[0;31mType:\\u001b[0m           type\\n\",\n       \"\\u001b[0;31mSubclasses:\\u001b[0m     \\n\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.model import SequentialLinear, LinearLayer\\n\",\n    \"SequentialLinear?\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"\\u001b[0;31mInit signature:\\u001b[0m\\n\",\n       \"\\u001b[0mLinearLayer\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0min_features\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mout_features\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mbias\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mbool\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mTrue\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m*\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mdropout\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mfloat\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;36m0.0\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mactivation_func\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mCallable\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mReLU\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mnormalizer\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mfloat\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;36m0.1\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n       \"\\u001b[0;31mDocstring:\\u001b[0m     \\n\",\n       \"Base NN layer. This is a wrap around PyTorch.\\n\",\n       \"See here for details: http://pytorch.org/docs/master/nn.html#\\n\",\n       \"\\u001b[0;31mInit docstring:\\u001b[0m\\n\",\n       \"Parameters\\n\",\n       \"----------\\n\",\n       \"in_features:\\n\",\n       \"    Size of each input sample.\\n\",\n       \"out_features:\\n\",\n       \"    Size of each output sample\\n\",\n       \"dropout: float\\n\",\n       \"    Probability of an element to be zeroed. Default: 0.5\\n\",\n       \"activation_func: func\\n\",\n       \"    Activation function.\\n\",\n       \"normalizer: func\\n\",\n       \"    Normalization layers\\n\",\n       \"\\u001b[0;31mFile:\\u001b[0m           ~/projects/XenonPy/xenonpy/model/sequential.py\\n\",\n       \"\\u001b[0;31mType:\\u001b[0m           type\\n\",\n       \"\\u001b[0;31mSubclasses:\\u001b[0m     \\n\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"LinearLayer?\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Following the official suggestion from PyTorch, `SequentialLinear` is a python class that inherit the `torch.nn.Module` class. Users can specify the hyperparameters to get a fully customized model object. For example:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=232, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(232, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=232, out_features=203, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(203, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_2): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=203, out_features=174, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(174, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=174, out_features=1, bias=True)\\n\",\n       \")\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"model = SequentialLinear(290, 1, h_neurons=(0.8, 0.7, 0.6))\\n\",\n    \"model\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### fully randomized model generation\\n\",\n    \"\\n\",\n    \"Process of random model generation:\\n\",\n    \"\\n\",\n    \"1. using a random parameter generator to generate a set of parameter.\\n\",\n    \"2. using the generated parameter set to setup a model object.\\n\",\n    \"3. loop step 1 and 2 as many times as needed.\\n\",\n    \"\\n\",\n    \"We provided a general parameter generator `xenonpy.utils.ParameterGenerator`  to do all the 3 steps for any callable object.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"\\u001b[0;31mInit signature:\\u001b[0m\\n\",\n       \"\\u001b[0mParameterGenerator\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mseed\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m**\\u001b[0m\\u001b[0mkwargs\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mAny\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mSequence\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mCallable\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mDict\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n       \"\\u001b[0;31mDocstring:\\u001b[0m      Generator for parameter set generating.\\n\",\n       \"\\u001b[0;31mInit docstring:\\u001b[0m\\n\",\n       \"Parameters\\n\",\n       \"----------\\n\",\n       \"seed\\n\",\n       \"    Numpy random seed.\\n\",\n       \"kwargs\\n\",\n       \"    Parameter candidate.\\n\",\n       \"\\u001b[0;31mFile:\\u001b[0m           ~/projects/XenonPy/xenonpy/utils/parameter_gen.py\\n\",\n       \"\\u001b[0;31mType:\\u001b[0m           type\\n\",\n       \"\\u001b[0;31mSubclasses:\\u001b[0m     \\n\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.utils import ParameterGenerator\\n\",\n    \"ParameterGenerator?\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Calling an instance of `ParameterGenerator` will return a generator.\\n\",\n    \"This generator can randomly select parameters from parameter candidates and yield them as a dict. This is what we want in step 1.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from math import ceil\\n\",\n    \"from random import uniform\\n\",\n    \"\\n\",\n    \"generator = ParameterGenerator(\\n\",\n    \"    in_features=290,\\n\",\n    \"    out_features=1,\\n\",\n    \"    h_neurons=dict(\\n\",\n    \"        data=[ceil(uniform(0.1, 1.2) * 290) for _ in range(100)], \\n\",\n    \"        repeat=(2, 3)\\n\",\n    \"    )\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Because `generator` is a generator, `for ... in ...` statement can be applied. \\n\",\n    \"For example, we can use `for parameters in generator(num_of_models)` to loop all these generated parameter sets.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (70, 109)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (135, 45)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (216, 261, 79)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (111, 88, 49)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (216, 79, 47)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (161, 45)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (193, 161, 78)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (90, 36, 234)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (230, 83, 295)}\\n\",\n      \"{'in_features': 290, 'out_features': 1, 'h_neurons': (171, 247)}\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"for parameters in generator(num=10):\\n\",\n    \"    print(parameters)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"For step 2, we can give a model class to the `factory` parameter as a factory function.\\n\",\n    \"If `factory` parameter is given, generator will feed generated parameters to the factory function automatically and yield the result as a second return in each loop. For example:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"parameters:  {'in_features': 290, 'out_features': 1, 'h_neurons': (182, 335, 204)}\\n\",\n      \"SequentialLinear(\\n\",\n      \"  (layer_0): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=290, out_features=182, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(182, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_1): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=182, out_features=335, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(335, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_2): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=335, out_features=204, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(204, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (output): Linear(in_features=204, out_features=1, bias=True)\\n\",\n      \") \\n\",\n      \"\\n\",\n      \"parameters:  {'in_features': 290, 'out_features': 1, 'h_neurons': (108, 255)}\\n\",\n      \"SequentialLinear(\\n\",\n      \"  (layer_0): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=290, out_features=108, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(108, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_1): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=108, out_features=255, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(255, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (output): Linear(in_features=255, out_features=1, bias=True)\\n\",\n      \") \\n\",\n      \"\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"for parameters, model in generator(2, factory=SequentialLinear):\\n\",\n    \"    print('parameters: ', parameters)\\n\",\n    \"    print(model, '\\\\n')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### scheduled random model\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"We also enable users to generate parameters in a functional way by given a function as candidate parameters. In this case, the function accept an int number as vector length and a vector of generated parameters. For example, generate a `n` length vector with float numbers sorted in ascending.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"generator = ParameterGenerator(\\n\",\n    \"    in_features=290,\\n\",\n    \"    out_features=1,\\n\",\n    \"    h_neurons=dict(\\n\",\n    \"        data=lambda n: sorted(np.random.uniform(0.2, 0.8, size=n), reverse=True), \\n\",\n    \"        repeat=(2, 3)\\n\",\n    \"    )\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"parameters:  {'in_features': 290, 'out_features': 1, 'h_neurons': (0.7954011465554711, 0.6993610045591458)}\\n\",\n      \"SequentialLinear(\\n\",\n      \"  (layer_0): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=290, out_features=231, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(231, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_1): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=231, out_features=203, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(203, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (output): Linear(in_features=203, out_features=1, bias=True)\\n\",\n      \") \\n\",\n      \"\\n\",\n      \"parameters:  {'in_features': 290, 'out_features': 1, 'h_neurons': (0.798810246990777, 0.38584535382368323, 0.29569841893337045)}\\n\",\n      \"SequentialLinear(\\n\",\n      \"  (layer_0): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=290, out_features=232, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(232, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_1): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=232, out_features=112, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(112, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_2): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=112, out_features=86, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(86, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (output): Linear(in_features=86, out_features=1, bias=True)\\n\",\n      \") \\n\",\n      \"\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"for parameters, model in generator(2, factory=SequentialLinear):\\n\",\n    \"    print('parameters: ', parameters)\\n\",\n    \"    print(model, '\\\\n')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"## Model training\\n\",\n    \"\\n\",\n    \"We provide a general and extendable model training system for neural network models.\\n\",\n    \"By customizing the extensions, users can fully control their model training process, and save the training results following the *XenonPy.MDL* format automatically.\\n\",\n    \"\\n\",\n    \"All these modules and extensions are under the `xenonpy.model.training`.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import torch\\n\",\n    \"import matplotlib.pyplot as plt\\n\",\n    \"from pymatgen import Structure\\n\",\n    \"\\n\",\n    \"from xenonpy.model.training import Trainer, SGD, MSELoss, Adam, ReduceLROnPlateau, ExponentialLR, ClipValue\\n\",\n    \"\\n\",\n    \"from xenonpy.datatools import preset, Splitter\\n\",\n    \"from xenonpy.descriptor import Compositions\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### prepare training/testing data\\n\",\n    \"\\n\",\n    \"If you followed the tutorial in https://github.com/yoshida-lab/XenonPy/blob/master/samples/build_sample_data.ipynb,\\n\",\n    \"the sample data should be save at `~/.xenonpy/userdata` with name `mp_samples.pd.xz`.\\n\",\n    \"You can use `pd.read_pickle` to load this file but we suggest that you use our `xenonpy.datatools.preset` module.\\n\",\n    \"\\n\",\n    \"We chose `volume` as the example to demostrate how to use our training system. We only use the data which `volume` are smaller than 2,500 to avoid the disparate data.\\n\",\n    \"we select data in `pandas.DataFrame` and calculate the descriptors using `xenonpy.descriptor.Compositions` calculator.\\n\",\n    \"It is noticed that the input for a neuron network model in pytorch must has shape (N x M x ...), which mean if the input is a 1-D vector, it should be reshaped to 2-D, e.g. (N) -> (N x 1).\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>band_gap</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>density</th>\\n\",\n       \"      <th>e_above_hull</th>\\n\",\n       \"      <th>efermi</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>final_energy_per_atom</th>\\n\",\n       \"      <th>formation_energy_per_atom</th>\\n\",\n       \"      <th>pretty_formula</th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"      <th>volume</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1008807</td>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"      <td>{'Rb': 1.0, 'Cu': 1.0, 'O': 1.0}</td>\\n\",\n       \"      <td>4.784634</td>\\n\",\n       \"      <td>0.996372</td>\\n\",\n       \"      <td>1.100617</td>\\n\",\n       \"      <td>[Rb, Cu, O]</td>\\n\",\n       \"      <td>-3.302762</td>\\n\",\n       \"      <td>-0.186408</td>\\n\",\n       \"      <td>RbCuO</td>\\n\",\n       \"      <td>[[-3.05935361 -3.05935361 -3.05935361] Rb, [0....</td>\\n\",\n       \"      <td>57.268924</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1009640</td>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"      <td>{'Pr': 1.0, 'N': 1.0}</td>\\n\",\n       \"      <td>8.145777</td>\\n\",\n       \"      <td>0.759393</td>\\n\",\n       \"      <td>5.213442</td>\\n\",\n       \"      <td>[Pr, N]</td>\\n\",\n       \"      <td>-7.082624</td>\\n\",\n       \"      <td>-0.714336</td>\\n\",\n       \"      <td>PrN</td>\\n\",\n       \"      <td>[[0. 0. 0.] Pr, [1.57925232 1.57925232 1.58276...</td>\\n\",\n       \"      <td>31.579717</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1016825</td>\\n\",\n       \"      <td>0.7745</td>\\n\",\n       \"      <td>{'Hf': 1.0, 'Mg': 1.0, 'O': 3.0}</td>\\n\",\n       \"      <td>6.165888</td>\\n\",\n       \"      <td>0.589550</td>\\n\",\n       \"      <td>2.424570</td>\\n\",\n       \"      <td>[Hf, Mg, O]</td>\\n\",\n       \"      <td>-7.911723</td>\\n\",\n       \"      <td>-3.060060</td>\\n\",\n       \"      <td>HfMgO3</td>\\n\",\n       \"      <td>[[2.03622802 2.03622802 2.03622802] Hf, [0. 0....</td>\\n\",\n       \"      <td>67.541269</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            band_gap                       composition   density  \\\\\\n\",\n       \"mp-1008807    0.0000  {'Rb': 1.0, 'Cu': 1.0, 'O': 1.0}  4.784634   \\n\",\n       \"mp-1009640    0.0000             {'Pr': 1.0, 'N': 1.0}  8.145777   \\n\",\n       \"mp-1016825    0.7745  {'Hf': 1.0, 'Mg': 1.0, 'O': 3.0}  6.165888   \\n\",\n       \"\\n\",\n       \"            e_above_hull    efermi     elements  final_energy_per_atom  \\\\\\n\",\n       \"mp-1008807      0.996372  1.100617  [Rb, Cu, O]              -3.302762   \\n\",\n       \"mp-1009640      0.759393  5.213442      [Pr, N]              -7.082624   \\n\",\n       \"mp-1016825      0.589550  2.424570  [Hf, Mg, O]              -7.911723   \\n\",\n       \"\\n\",\n       \"            formation_energy_per_atom pretty_formula  \\\\\\n\",\n       \"mp-1008807                  -0.186408          RbCuO   \\n\",\n       \"mp-1009640                  -0.714336            PrN   \\n\",\n       \"mp-1016825                  -3.060060         HfMgO3   \\n\",\n       \"\\n\",\n       \"                                                    structure     volume  \\n\",\n       \"mp-1008807  [[-3.05935361 -3.05935361 -3.05935361] Rb, [0....  57.268924  \\n\",\n       \"mp-1009640  [[0. 0. 0.] Pr, [1.57925232 1.57925232 1.58276...  31.579717  \\n\",\n       \"mp-1016825  [[2.03622802 2.03622802 2.03622802] Hf, [0. 0....  67.541269  \"\n      ]\n     },\n     \"execution_count\": 12,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# if you have not have the samples data\\n\",\n    \"# preset.build('mp_samples', api_key=<your materials project api key>)\\n\",\n    \"\\n\",\n    \"from xenonpy.datatools import preset\\n\",\n    \"\\n\",\n    \"data = preset.mp_samples\\n\",\n    \"data.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"In case of the system did not automatically download some descriptor data in XenonPy, please run the following code to sync the data.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 13,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"fetching dataset `elements` from https://github.com/yoshida-lab/dataset/releases/download/v0.1.3/elements.pd.xz.\\n\",\n      \"fetching dataset `elements_completed` from https://github.com/yoshida-lab/dataset/releases/download/v0.1.3/elements_completed.pd.xz.\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.datatools import preset\\n\",\n    \"preset.sync('elements')\\n\",\n    \"preset.sync('elements_completed')\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1008807</td>\\n\",\n       \"      <td>24.666667</td>\\n\",\n       \"      <td>174.067140</td>\\n\",\n       \"      <td>209.333333</td>\\n\",\n       \"      <td>25.666667</td>\\n\",\n       \"      <td>55.004267</td>\\n\",\n       \"      <td>1297.063333</td>\\n\",\n       \"      <td>72.868680</td>\\n\",\n       \"      <td>1646.90</td>\\n\",\n       \"      <td>139.333333</td>\\n\",\n       \"      <td>128.333333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.360</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>349.5</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1009640</td>\\n\",\n       \"      <td>33.000000</td>\\n\",\n       \"      <td>137.000000</td>\\n\",\n       \"      <td>232.500000</td>\\n\",\n       \"      <td>19.050000</td>\\n\",\n       \"      <td>77.457330</td>\\n\",\n       \"      <td>1931.200000</td>\\n\",\n       \"      <td>43.182441</td>\\n\",\n       \"      <td>1892.85</td>\\n\",\n       \"      <td>137.000000</td>\\n\",\n       \"      <td>123.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.192</td>\\n\",\n       \"      <td>0.02583</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>166.0</td>\\n\",\n       \"      <td>193.0</td>\\n\",\n       \"      <td>360.6</td>\\n\",\n       \"      <td>333.6</td>\\n\",\n       \"      <td>1.100</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1016825</td>\\n\",\n       \"      <td>21.600000</td>\\n\",\n       \"      <td>153.120852</td>\\n\",\n       \"      <td>203.400000</td>\\n\",\n       \"      <td>13.920000</td>\\n\",\n       \"      <td>50.158400</td>\\n\",\n       \"      <td>1420.714000</td>\\n\",\n       \"      <td>76.663625</td>\\n\",\n       \"      <td>343.82</td>\\n\",\n       \"      <td>102.800000</td>\\n\",\n       \"      <td>96.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.146</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>302.1</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>3 rows × 290 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-1008807          24.666667         174.067140              209.333333   \\n\",\n       \"mp-1009640          33.000000         137.000000              232.500000   \\n\",\n       \"mp-1016825          21.600000         153.120852              203.400000   \\n\",\n       \"\\n\",\n       \"            ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-1008807          25.666667          55.004267        1297.063333   \\n\",\n       \"mp-1009640          19.050000          77.457330        1931.200000   \\n\",\n       \"mp-1016825          13.920000          50.158400        1420.714000   \\n\",\n       \"\\n\",\n       \"            ave:bulk_modulus  ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-1008807         72.868680    1646.90                   139.333333   \\n\",\n       \"mp-1009640         43.182441    1892.85                   137.000000   \\n\",\n       \"mp-1016825         76.663625     343.82                   102.800000   \\n\",\n       \"\\n\",\n       \"            ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"mp-1008807                  128.333333  ...                1.0         2.0   \\n\",\n       \"mp-1009640                  123.500000  ...                2.0         2.0   \\n\",\n       \"mp-1016825                   96.000000  ...                2.0         2.0   \\n\",\n       \"\\n\",\n       \"            min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"mp-1008807              0.360                   0.02658           152.0   \\n\",\n       \"mp-1009640              0.192                   0.02583           155.0   \\n\",\n       \"mp-1016825              0.146                   0.02658           152.0   \\n\",\n       \"\\n\",\n       \"            min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"mp-1008807                   150.0               182.0               349.5   \\n\",\n       \"mp-1009640                   166.0               193.0               360.6   \\n\",\n       \"mp-1016825                   150.0               182.0               302.1   \\n\",\n       \"\\n\",\n       \"            min:sound_velocity  min:Polarizability  \\n\",\n       \"mp-1008807               317.5               0.802  \\n\",\n       \"mp-1009640               333.6               1.100  \\n\",\n       \"mp-1016825               317.5               0.802  \\n\",\n       \"\\n\",\n       \"[3 rows x 290 columns]\"\n      ]\n     },\n     \"execution_count\": 14,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>volume</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1008807</td>\\n\",\n       \"      <td>57.268924</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1009640</td>\\n\",\n       \"      <td>31.579717</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>mp-1016825</td>\\n\",\n       \"      <td>67.541269</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"               volume\\n\",\n       \"mp-1008807  57.268924\\n\",\n       \"mp-1009640  31.579717\\n\",\n       \"mp-1016825  67.541269\"\n      ]\n     },\n     \"execution_count\": 14,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"prop = data[data.volume <= 2500]['volume'].to_frame()  # reshape to 2-D\\n\",\n    \"desc = Compositions(featurizers='classic').transform(data.loc[prop.index]['composition'])\\n\",\n    \"\\n\",\n    \"desc.head(3)\\n\",\n    \"prop.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.datatools import preset\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Use the `xenonpy.datatools.Splitter` to split data into training and test sets.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"\\u001b[0;31mInit signature:\\u001b[0m\\n\",\n       \"\\u001b[0mSplitter\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0msize\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m*\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mtest_size\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mfloat\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mint\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;36m0.2\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mk_fold\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mIterable\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mrandom_state\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mint\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mNoneType\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mshuffle\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mbool\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mTrue\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n       \"\\u001b[0;31mDocstring:\\u001b[0m      Data splitter for train and test\\n\",\n       \"\\u001b[0;31mInit docstring:\\u001b[0m\\n\",\n       \"Parameters\\n\",\n       \"----------\\n\",\n       \"size\\n\",\n       \"    Total sample size.\\n\",\n       \"    All data must have same length of their first dim,\\n\",\n       \"test_size\\n\",\n       \"    If float, should be between ``0.0`` and ``1.0`` and represent the proportion\\n\",\n       \"    of the dataset to include in the test split. If int, represents the\\n\",\n       \"    absolute number of test samples. Can be ``0`` if cv is ``None``.\\n\",\n       \"    In this case, :meth:`~Splitter.cv` will yield a tuple only contains ``training`` and ``validation``\\n\",\n       \"    on each step. By default, the value is set to 0.2.\\n\",\n       \"k_fold\\n\",\n       \"    Number of k-folds.\\n\",\n       \"    If ``int``, Must be at least 2.\\n\",\n       \"    If ``Iterable``, it should provide label for each element which will be used for group cv.\\n\",\n       \"    In this case, the input of :meth:`~Splitter.cv` must be a :class:`pandas.DataFrame` object.\\n\",\n       \"    Default value is None to specify no cv.\\n\",\n       \"random_state\\n\",\n       \"    If int, random_state is the seed used by the random number generator;\\n\",\n       \"    Default is None.\\n\",\n       \"shuffle\\n\",\n       \"    Whether or not to shuffle the data before splitting.\\n\",\n       \"\\u001b[0;31mFile:\\u001b[0m           ~/projects/XenonPy/xenonpy/datatools/splitter.py\\n\",\n       \"\\u001b[0;31mType:\\u001b[0m           type\\n\",\n       \"\\u001b[0;31mSubclasses:\\u001b[0m     \\n\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"Splitter?\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 17,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(738, 290)\"\n      ]\n     },\n     \"execution_count\": 17,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(738, 1)\"\n      ]\n     },\n     \"execution_count\": 17,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(185, 290)\"\n      ]\n     },\n     \"execution_count\": 17,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"(185, 1)\"\n      ]\n     },\n     \"execution_count\": 17,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"sp = Splitter(prop.shape[0])\\n\",\n    \"x_train, x_val, y_train, y_val = sp.split(desc, prop)\\n\",\n    \"\\n\",\n    \"x_train.shape\\n\",\n    \"y_train.shape\\n\",\n    \"x_val.shape\\n\",\n    \"y_val.shape\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### model training\\n\",\n    \"\\n\",\n    \"Model training in pytorch is very flexible.\\n\",\n    \"The [official document](https://pytorch.org/tutorials/beginner/pytorch_with_examples.html) explains the concept with examples.\\n\",\n    \"In short, training a neuron network model includes:\\n\",\n    \"1. calculating loss of training data for the model.\\n\",\n    \"2. executing the backpropagation to update the weights between each neuron.\\n\",\n    \"3. looping over step 1 and 2 until convergence.\\n\",\n    \"\\n\",\n    \"In step 1, a calculator, often called `loss function`, is needed to calculate the loss.\\n\",\n    \"In step 2, an optimizer will be used.\\n\",\n    \"`xenonpy.model.training.Trainer` covers step 3.\\n\",\n    \"\\n\",\n    \"Here is how you will do it in XenonPy:\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=232, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(232, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=232, out_features=174, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(174, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_2): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=174, out_features=116, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(116, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=116, out_features=58, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(58, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=58, out_features=1, bias=True)\\n\",\n       \")\"\n      ]\n     },\n     \"execution_count\": 18,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"model = SequentialLinear(290, 1, h_neurons=(0.8, 0.6, 0.4, 0.2))\\n\",\n    \"model\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 19,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"Trainer(clip_grad=None, cuda=None, epochs=200, loss_func=MSELoss(),\\n\",\n       \"        lr_scheduler=None,\\n\",\n       \"        model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=232, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(232, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Li...\\n\",\n       \"    (linear): Linear(in_features=116, out_features=58, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(58, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=58, out_features=1, bias=True)\\n\",\n       \"),\\n\",\n       \"        non_blocking=False,\\n\",\n       \"        optimizer=Adam (\\n\",\n       \"Parameter Group 0\\n\",\n       \"    amsgrad: False\\n\",\n       \"    betas: (0.9, 0.999)\\n\",\n       \"    eps: 1e-08\\n\",\n       \"    lr: 0.01\\n\",\n       \"    weight_decay: 0\\n\",\n       \"))\"\n      ]\n     },\n     \"execution_count\": 19,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"trainer = Trainer(\\n\",\n    \"    model=model,\\n\",\n    \"    optimizer=Adam(lr=0.01),\\n\",\n    \"    loss_func=MSELoss()\\n\",\n    \")\\n\",\n    \"trainer\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 20,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training: 100%|██████████| 400/400 [00:06<00:00, 60.86it/s]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"trainer.fit(\\n\",\n    \"    x_train=torch.tensor(x_train.values, dtype=torch.float),\\n\",\n    \"    y_train=torch.tensor(y_train.values, dtype=torch.float),\\n\",\n    \"    epochs=400\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 21,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>total_iters</th>\\n\",\n       \"      <th>i_epoch</th>\\n\",\n       \"      <th>i_batch</th>\\n\",\n       \"      <th>train_mse_loss</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>397</td>\\n\",\n       \"      <td>397</td>\\n\",\n       \"      <td>398</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>3684.717041</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>398</td>\\n\",\n       \"      <td>398</td>\\n\",\n       \"      <td>399</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>3058.761719</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>399</td>\\n\",\n       \"      <td>399</td>\\n\",\n       \"      <td>400</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>3039.683350</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"     total_iters  i_epoch  i_batch  train_mse_loss\\n\",\n       \"397          397      398        1     3684.717041\\n\",\n       \"398          398      399        1     3058.761719\\n\",\n       \"399          399      400        1     3039.683350\"\n      ]\n     },\n     \"execution_count\": 21,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<matplotlib.axes._subplots.AxesSubplot at 0x1a2ce256d0>\"\n      ]\n     },\n     \"execution_count\": 21,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 1000x500 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"_, ax = plt.subplots(figsize=(10, 5), dpi=100)\\n\",\n    \"trainer.training_info.tail(3)\\n\",\n    \"trainer.training_info.plot(y=['train_mse_loss'], ax=ax)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 22,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Missing directory and/or file name information!\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x720 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"y_pred = trainer.predict(x_in=torch.tensor(x_val.values, dtype=torch.float)).detach().numpy().flatten()\\n\",\n    \"y_true = y_val.values.flatten()\\n\",\n    \"\\n\",\n    \"y_fit_pred = trainer.predict(x_in=torch.tensor(x_train.values, dtype=torch.float)).detach().numpy().flatten()\\n\",\n    \"y_fit_true = y_train.values.flatten()\\n\",\n    \"\\n\",\n    \"draw(y_true, y_pred, y_fit_true, y_fit_pred, prop_name='Volume ($\\\\AA^3$)')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"You can see that although `trainer` can keep training info automatically for us, we still need to convert `DataFrame` to `torch.Tensor` and convert dtype from `np.double` to `torch.float` during training, and eventually convert them back during prediction ourselves. Also, overfitting could be observed in the **prediction vs observation** plot. One possible caused is using all training data in each epoch of the training process. We can use a technique called mini-batch to avoid overfitting, but that will require more coding.\\n\",\n    \"\\n\",\n    \"To skip these tedious coding steps, we provide an extension system.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"First, we use `ArrayDataset` to wrap our data, and use `torch.utils.data.DataLoader` to a build mini-batch loader.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 23,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.model.training.dataset import ArrayDataset\\n\",\n    \"from torch.utils.data import DataLoader\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 24,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"train_dataset = DataLoader(ArrayDataset(x_train, y_train), shuffle=True, batch_size=100)\\n\",\n    \"val_dataset = DataLoader(ArrayDataset(x_val, y_val), batch_size=1000)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Second, we use `TensorConverter` extension to automatically convert data between `numpy` and `torch.Tensor`.\\n\",\n    \"Additionally, we want to trace some stopping criterion and use early stopping when these criterion stop improving.\\n\",\n    \"This can be done by using `Validator`.\\n\",\n    \"\\n\",\n    \"At last, to save our model for latter use, just add `Persist` to the trainer and saving will be done in slient.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 25,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.model.training.extension import Validator, TensorConverter, Persist\\n\",\n    \"from xenonpy.model.training.dataset import ArrayDataset\\n\",\n    \"from xenonpy.model.utils import regression_metrics\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"We use `trainer.extend` method to stack up extensions. Note that extensions will be executed in the order of insertion, so `TensorConverter` should always go first and `Persist` be the last.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 26,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"trainer = Trainer(\\n\",\n    \"    optimizer=Adam(lr=0.01),\\n\",\n    \"    loss_func=MSELoss(),\\n\",\n    \").extend(\\n\",\n    \"    TensorConverter(),\\n\",\n    \"    Validator(metrics_func=regression_metrics, early_stopping=30, trace_order=5, mae=0.0, pearsonr=1.0),\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 27,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"\\u001b[0;31mInit signature:\\u001b[0m\\n\",\n       \"\\u001b[0mPersist\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mpath\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mpathlib\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mPath\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mstr\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;34m'.'\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m*\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mmodel_class\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mCallable\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mmodel_params\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mUnion\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mtuple\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mdict\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m<\\u001b[0m\\u001b[0mbuilt\\u001b[0m\\u001b[0;34m-\\u001b[0m\\u001b[0;32min\\u001b[0m \\u001b[0mfunction\\u001b[0m \\u001b[0many\\u001b[0m\\u001b[0;34m>\\u001b[0m\\u001b[0;34m]\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0mincrement\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;32mFalse\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0msync_training_step\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;32mFalse\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m    \\u001b[0;34m**\\u001b[0m\\u001b[0mdescribe\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mAny\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0;34m\\u001b[0m\\n\",\n       \"\\u001b[0;34m\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n       \"\\u001b[0;31mDocstring:\\u001b[0m      Trainer extension for data persistence\\n\",\n       \"\\u001b[0;31mInit docstring:\\u001b[0m\\n\",\n       \"Parameters\\n\",\n       \"----------\\n\",\n       \"path\\n\",\n       \"    Path for model saving.\\n\",\n       \"model_class\\n\",\n       \"    A factory function for model reconstructing.\\n\",\n       \"    In most case this is the model class inherits from :class:`torch.nn.Module`\\n\",\n       \"model_params\\n\",\n       \"    The parameters for model reconstructing.\\n\",\n       \"    This can be anything but in general this is a dict which can be used as kwargs parameters.\\n\",\n       \"increment\\n\",\n       \"    If ``True``, dir name of path will be decorated with a auto increment number,\\n\",\n       \"    e.g. use ``model_dir@1`` for ``model_dir``.\\n\",\n       \"sync_training_step\\n\",\n       \"    If ``True``, will save ``trainer.training_info`` at each iteration.\\n\",\n       \"    Default is ``False``, only save ``trainer.training_info`` at each epoch.\\n\",\n       \"describe:\\n\",\n       \"    Any other information to describe this model.\\n\",\n       \"    These information will be saved under model dir by name ``describe.pkl.z``.\\n\",\n       \"\\u001b[0;31mFile:\\u001b[0m           ~/projects/XenonPy/xenonpy/model/training/extension/persist.py\\n\",\n       \"\\u001b[0;31mType:\\u001b[0m           type\\n\",\n       \"\\u001b[0;31mSubclasses:\\u001b[0m     \\n\"\n      ]\n     },\n     \"metadata\": {},\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"Persist?\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"`Persist` need a path to save model. For convenience, we prepare the path name by concatenating the number of neurons in a model.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 28,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def make_name(model):\\n\",\n    \"    name = []\\n\",\n    \"    for n, m in model.named_children():\\n\",\n    \"        if 'layer_' in n:\\n\",\n    \"            name.append(str(m.linear.in_features))\\n\",\n    \"        else:\\n\",\n    \"            name.append(str(m.in_features))\\n\",\n    \"            name.append(str(m.out_features))\\n\",\n    \"    return '-'.join(name)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 29,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=232, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(232, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=232, out_features=174, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(174, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_2): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=174, out_features=116, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(116, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=116, out_features=58, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(58, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=58, out_features=1, bias=True)\\n\",\n       \")\"\n      ]\n     },\n     \"execution_count\": 29,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": []\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  12%|█▏        | 47/400 [00:15<02:06,  2.78it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 31 iterations, finish training at iteration 372\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"model = SequentialLinear(290, 1, h_neurons=(0.8, 0.6, 0.4, 0.2))\\n\",\n    \"model\\n\",\n    \"\\n\",\n    \"model_name = make_name(model)\\n\",\n    \"persist = Persist(\\n\",\n    \"    f'trained_models/{model_name}', \\n\",\n    \"    # -^- required -^-\\n\",\n    \"\\n\",\n    \"    # -v- optional -v-\\n\",\n    \"    increment=False, \\n\",\n    \"    sync_training_step=True,\\n\",\n    \"    author='Chang Liu',\\n\",\n    \"    email='liu.chang.1865@gmail.com',\\n\",\n    \"    dataset='materials project',\\n\",\n    \")\\n\",\n    \"_ = trainer.extend(persist)\\n\",\n    \"trainer.reset(to=model)\\n\",\n    \"\\n\",\n    \"trainer.fit(training_dataset=train_dataset, validation_dataset=val_dataset, epochs=400)\\n\",\n    \"persist(splitter=sp, data_indices=prop.index.tolist())  # <-- calling of this method only after the model training\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 30,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<matplotlib.axes._subplots.AxesSubplot at 0x1a2d100e10>\"\n      ]\n     },\n     \"execution_count\": 30,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 1500x750 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"_, ax = plt.subplots(figsize=(10, 5), dpi=150)\\n\",\n    \"trainer.training_info.plot(y=['train_mse_loss', 'val_mse'], ax=ax)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 31,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Missing directory and/or file name information!\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x720 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"y_pred, y_true = trainer.predict(dataset=val_dataset, checkpoint='pearsonr_1')\\n\",\n    \"y_fit_pred, y_fit_true = trainer.predict(dataset=train_dataset, checkpoint='pearsonr_1')\\n\",\n    \"draw(y_true, y_pred, y_fit_true, y_fit_pred, prop_name='Volume ($\\\\AA^3$)')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"## Combin random model generating and training\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 32,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"generator = ParameterGenerator(\\n\",\n    \"    in_features=290,\\n\",\n    \"    out_features=1,\\n\",\n    \"    h_neurons=dict(\\n\",\n    \"        data=lambda n: sorted(np.random.uniform(0.2, 0.8, size=n), reverse=True), \\n\",\n    \"        repeat=(3, 4)\\n\",\n    \"    )\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 33,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   0%|          | 0/400 [00:00<?, ?it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"SequentialLinear(\\n\",\n      \"  (layer_0): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=290, out_features=195, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(195, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_1): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=195, out_features=141, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(141, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_2): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=141, out_features=131, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(131, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_3): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=131, out_features=61, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(61, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (output): Linear(in_features=61, out_features=1, bias=True)\\n\",\n      \")\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": []\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  12%|█▏        | 48/400 [00:15<02:06,  2.79it/s]\\n\",\n      \"Training:   0%|          | 0/400 [00:00<?, ?it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 31 iterations, finish training at iteration 380\\n\",\n      \"SequentialLinear(\\n\",\n      \"  (layer_0): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=290, out_features=214, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(214, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_1): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=214, out_features=181, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(181, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_2): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=181, out_features=141, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(141, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (layer_3): LinearLayer(\\n\",\n      \"    (linear): Linear(in_features=141, out_features=130, bias=True)\\n\",\n      \"    (dropout): Dropout(p=0.1)\\n\",\n      \"    (normalizer): BatchNorm1d(130, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n      \"    (activation): ReLU()\\n\",\n      \"  )\\n\",\n      \"  (output): Linear(in_features=130, out_features=1, bias=True)\\n\",\n      \")\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": []\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  10%|█         | 42/400 [00:14<02:18,  2.59it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 31 iterations, finish training at iteration 333\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"for paras, model in generator(num=2, factory=SequentialLinear):\\n\",\n    \"    print(model)\\n\",\n    \"    model_name = make_name(model)\\n\",\n    \"    persist = Persist(\\n\",\n    \"        f'trained_models/{model_name}', \\n\",\n    \"        # -^- required -^-\\n\",\n    \"        \\n\",\n    \"        # -v- optional -v-\\n\",\n    \"        increment=False, \\n\",\n    \"        sync_training_step=True,\\n\",\n    \"        model_class=SequentialLinear,\\n\",\n    \"        model_params=paras,\\n\",\n    \"        author='Chang Liu',\\n\",\n    \"        email='liu.chang.1865@gmail.com',\\n\",\n    \"        dataset='materials project',\\n\",\n    \"    )\\n\",\n    \"    _ = trainer.extend(persist)\\n\",\n    \"    trainer.reset(to=model)\\n\",\n    \"    \\n\",\n    \"    trainer.fit(training_dataset=train_dataset, validation_dataset=val_dataset, epochs=400)\\n\",\n    \"    persist(splitter=sp, data_indices=prop.index.tolist())  # <-- calling of this method only after the model training\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.4\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 2\n}\n"
  },
  {
    "path": "samples/sample_data_building.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# Build Sample Data\\n\",\n    \"\\n\",\n    \"This tutorial shows the details of sample data building. This is exactly what we did in `xenonpy.datatools.Preset#build`.\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"### dataset\\n\",\n    \"\\n\",\n    \"We selected 1,000 inorganic compounds randomly from the [Materials Project](https://materialsproject.org) database for test and benchmark.\\n\",\n    \"You can check all **MP ids** at `mp_ids.txt`.\\n\",\n    \"\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### API key\\n\",\n    \"\\n\",\n    \"Before starting, users have to create their own `API key`. See [The Materials API](https://materialsproject.org/open) to learn how to do it.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# your api key\\n\",\n    \"\\n\",\n    \"api_key = ''\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### import packages\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from itertools import zip_longest\\n\",\n    \"from pathlib import Path\\n\",\n    \"\\n\",\n    \"from pymatgen.ext.matproj import MPRester\\n\",\n    \"from tqdm import tqdm\\n\",\n    \"\\n\",\n    \"import pandas as pd\\n\",\n    \"import numpy as np\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### fetch function\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def data_fetcher(api_key, mp_ids):\\n\",\n    \"\\n\",\n    \"#     print('Will fetch %s inorganic compounds from Materials Project' % len(mp_ids))\\n\",\n    \"    \\n\",\n    \"    # split requests into fixed number groups\\n\",\n    \"    # eg: grouper('ABCDEFG', 3, 'x') --> ABC DEF Gxx\\n\",\n    \"    def grouper(iterable, n, fillvalue=None):\\n\",\n    \"        \\\"\\\"\\\"Collect data into fixed-length chunks or blocks\\\"\\\"\\\"\\n\",\n    \"        args = [iter(iterable)] * n\\n\",\n    \"        return zip_longest(fillvalue=fillvalue, *args)\\n\",\n    \"\\n\",\n    \"    # the following props will be fetched\\n\",\n    \"    mp_props = [\\n\",\n    \"        'band_gap',\\n\",\n    \"        'density',\\n\",\n    \"        'volume',\\n\",\n    \"        'material_id',\\n\",\n    \"        'pretty_formula',\\n\",\n    \"        'elements',\\n\",\n    \"        'efermi',\\n\",\n    \"        'e_above_hull',\\n\",\n    \"        'formation_energy_per_atom',\\n\",\n    \"        'final_energy_per_atom',\\n\",\n    \"        'unit_cell_formula',\\n\",\n    \"        'structure'\\n\",\n    \"    ]\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"    entries = []\\n\",\n    \"    mpid_groups = [g for g in grouper(mp_ids, 10)]\\n\",\n    \"\\n\",\n    \"    with MPRester(api_key) as mpr:\\n\",\n    \"        for group in tqdm(mpid_groups):\\n\",\n    \"            mpid_list = [id for id in filter(None, group)]\\n\",\n    \"            chunk = mpr.query({\\\"material_id\\\": {\\\"$in\\\": mpid_list}}, mp_props)\\n\",\n    \"            entries.extend(chunk)\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"    df = pd.DataFrame(entries, index=[e['material_id'] for e in entries])\\n\",\n    \"    df = df.drop('material_id', axis=1)\\n\",\n    \"    df = df.rename(columns={'unit_cell_formula': 'composition'})\\n\",\n    \"    df = df.reindex(columns=sorted(df.columns))\\n\",\n    \"\\n\",\n    \"    return df\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"100%|██████████| 100/100 [01:06<00:00,  1.63it/s]\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>band_gap</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>density</th>\\n\",\n       \"      <th>e_above_hull</th>\\n\",\n       \"      <th>efermi</th>\\n\",\n       \"      <th>elements</th>\\n\",\n       \"      <th>final_energy_per_atom</th>\\n\",\n       \"      <th>formation_energy_per_atom</th>\\n\",\n       \"      <th>pretty_formula</th>\\n\",\n       \"      <th>structure</th>\\n\",\n       \"      <th>volume</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-20866</th>\\n\",\n       \"      <td>0.1849</td>\\n\",\n       \"      <td>{'Ge': 4.0, 'Rh': 4.0}</td>\\n\",\n       \"      <td>9.755532</td>\\n\",\n       \"      <td>0.039943</td>\\n\",\n       \"      <td>NaN</td>\\n\",\n       \"      <td>[Ge, Rh]</td>\\n\",\n       \"      <td>-6.496651</td>\\n\",\n       \"      <td>-0.506775</td>\\n\",\n       \"      <td>GeRh</td>\\n\",\n       \"      <td>[[0.80283811 1.66009496 3.26577118] Ge, [1.660...</td>\\n\",\n       \"      <td>119.521991</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-30759</th>\\n\",\n       \"      <td>0.0000</td>\\n\",\n       \"      <td>{'Li': 1.0, 'Mg': 2.0, 'Tl': 1.0}</td>\\n\",\n       \"      <td>5.022910</td>\\n\",\n       \"      <td>0.027278</td>\\n\",\n       \"      <td>4.641088</td>\\n\",\n       \"      <td>[Li, Mg, Tl]</td>\\n\",\n       \"      <td>-1.970913</td>\\n\",\n       \"      <td>-0.099951</td>\\n\",\n       \"      <td>LiMg2Tl</td>\\n\",\n       \"      <td>[[2.85976352 2.02215817 4.95325571] Li, [1.429...</td>\\n\",\n       \"      <td>85.932461</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-3416</th>\\n\",\n       \"      <td>6.7145</td>\\n\",\n       \"      <td>{'F': 12.0, 'Na': 6.0, 'Al': 2.0}</td>\\n\",\n       \"      <td>2.844098</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>-1.602530</td>\\n\",\n       \"      <td>[Al, F, Na]</td>\\n\",\n       \"      <td>-5.035544</td>\\n\",\n       \"      <td>-3.414627</td>\\n\",\n       \"      <td>Na3AlF6</td>\\n\",\n       \"      <td>[[3.6307153  1.31968004 3.40159567] F, [4.5775...</td>\\n\",\n       \"      <td>245.150290</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-505412</th>\\n\",\n       \"      <td>2.0103</td>\\n\",\n       \"      <td>{'K': 8.0, 'In': 8.0, 'S': 16.0}</td>\\n\",\n       \"      <td>3.080923</td>\\n\",\n       \"      <td>0.000000</td>\\n\",\n       \"      <td>1.459451</td>\\n\",\n       \"      <td>[In, K, S]</td>\\n\",\n       \"      <td>-3.971909</td>\\n\",\n       \"      <td>-1.274151</td>\\n\",\n       \"      <td>KInS2</td>\\n\",\n       \"      <td>[[ 6.09352925  1.20936514 14.43416479] K, [ 6....</td>\\n\",\n       \"      <td>940.171218</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-684652</th>\\n\",\n       \"      <td>6.8002</td>\\n\",\n       \"      <td>{'Be': 3.0, 'F': 6.0}</td>\\n\",\n       \"      <td>1.246978</td>\\n\",\n       \"      <td>0.223526</td>\\n\",\n       \"      <td>-5.588439</td>\\n\",\n       \"      <td>[Be, F]</td>\\n\",\n       \"      <td>-5.541302</td>\\n\",\n       \"      <td>-3.346732</td>\\n\",\n       \"      <td>BeF2</td>\\n\",\n       \"      <td>[[3.76534884 1.64321    7.5707047 ] Be, [1.460...</td>\\n\",\n       \"      <td>187.798605</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"           band_gap                        composition   density  \\\\\\n\",\n       \"mp-20866     0.1849             {'Ge': 4.0, 'Rh': 4.0}  9.755532   \\n\",\n       \"mp-30759     0.0000  {'Li': 1.0, 'Mg': 2.0, 'Tl': 1.0}  5.022910   \\n\",\n       \"mp-3416      6.7145  {'F': 12.0, 'Na': 6.0, 'Al': 2.0}  2.844098   \\n\",\n       \"mp-505412    2.0103   {'K': 8.0, 'In': 8.0, 'S': 16.0}  3.080923   \\n\",\n       \"mp-684652    6.8002              {'Be': 3.0, 'F': 6.0}  1.246978   \\n\",\n       \"\\n\",\n       \"           e_above_hull    efermi      elements  final_energy_per_atom  \\\\\\n\",\n       \"mp-20866       0.039943       NaN      [Ge, Rh]              -6.496651   \\n\",\n       \"mp-30759       0.027278  4.641088  [Li, Mg, Tl]              -1.970913   \\n\",\n       \"mp-3416        0.000000 -1.602530   [Al, F, Na]              -5.035544   \\n\",\n       \"mp-505412      0.000000  1.459451    [In, K, S]              -3.971909   \\n\",\n       \"mp-684652      0.223526 -5.588439       [Be, F]              -5.541302   \\n\",\n       \"\\n\",\n       \"           formation_energy_per_atom pretty_formula  \\\\\\n\",\n       \"mp-20866                   -0.506775           GeRh   \\n\",\n       \"mp-30759                   -0.099951        LiMg2Tl   \\n\",\n       \"mp-3416                    -3.414627        Na3AlF6   \\n\",\n       \"mp-505412                  -1.274151          KInS2   \\n\",\n       \"mp-684652                  -3.346732           BeF2   \\n\",\n       \"\\n\",\n       \"                                                   structure      volume  \\n\",\n       \"mp-20866   [[0.80283811 1.66009496 3.26577118] Ge, [1.660...  119.521991  \\n\",\n       \"mp-30759   [[2.85976352 2.02215817 4.95325571] Li, [1.429...   85.932461  \\n\",\n       \"mp-3416    [[3.6307153  1.31968004 3.40159567] F, [4.5775...  245.150290  \\n\",\n       \"mp-505412  [[ 6.09352925  1.20936514 14.43416479] K, [ 6....  940.171218  \\n\",\n       \"mp-684652  [[3.76534884 1.64321    7.5707047 ] Be, [1.460...  187.798605  \"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# read ids\\n\",\n    \"mp_ids = [s.decode('utf-8') for s in np.loadtxt('mp_ids.txt', 'S20')]\\n\",\n    \"\\n\",\n    \"# fetch data as pandas.DataFrame\\n\",\n    \"df = data_fetcher(api_key, mp_ids)\\n\",\n    \"df.head(5)\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.3\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "samples/set1/data1.csv",
    "content": ",0,1\n0,1,2\n1,3,4\n"
  },
  {
    "path": "samples/set2/data2.csv",
    "content": ",0,1\n0,1,2\n1,3,4\n"
  },
  {
    "path": "samples/tools.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# Tools\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%matplotlib inline\\n\",\n    \"import warnings\\n\",\n    \"warnings.filterwarnings(\\\"ignore\\\", message=\\\"numpy.dtype size changed\\\")\\n\",\n    \"warnings.filterwarnings(\\\"ignore\\\", message=\\\"numpy.ufunc size changed\\\")\\n\",\n    \"\\n\",\n    \"# basic uses\\n\",\n    \"import pprint\\n\",\n    \"import re\\n\",\n    \"import numpy as np\\n\",\n    \"import pandas as pd\\n\",\n    \"import pickle as pk\\n\",\n    \"import joblib\\n\",\n    \"from itertools import zip_longest\\n\",\n    \"from pathlib import Path\\n\",\n    \"from math import ceil\\n\",\n    \"from random import uniform\\n\",\n    \"import seaborn as sb\\n\",\n    \"\\n\",\n    \"# plotting figures\\n\",\n    \"import matplotlib.pyplot as plt\\n\",\n    \"from matplotlib.patches import Rectangle\\n\",\n    \"\\n\",\n    \"# RDKit molecule conversion and drawing\\n\",\n    \"from rdkit import Chem\\n\",\n    \"from rdkit.Chem import Draw\\n\",\n    \"from rdkit.Chem.Draw import rdMolDraw2D\\n\",\n    \"\\n\",\n    \"# modeling\\n\",\n    \"import torch\\n\",\n    \"from sklearn.metrics import mean_absolute_error\\n\",\n    \"from sklearn.model_selection import train_test_split\\n\",\n    \"\\n\",\n    \"# user-friendly print\\n\",\n    \"from IPython.core.interactiveshell import InteractiveShell\\n\",\n    \"InteractiveShell.ast_node_interactivity = \\\"all\\\"\\n\",\n    \"\\n\",\n    \"sb.set()\\n\",\n    \"sb.set_context(\\\"notebook\\\", font_scale=1.0)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \" # prediction vs. observation plots (single test trial)\\n\",\n    \"def draw(y_true, y_pred, y_true_fit=None, y_pred_fit=None, *, prop_name, log_scale=False, file_dir=None, file_name=None):\\n\",\n    \"\\n\",\n    \"    mask = ~np.isnan(y_pred)\\n\",\n    \"    y_true = y_true[mask]\\n\",\n    \"    y_pred = y_pred[mask]\\n\",\n    \"        \\n\",\n    \"    data = pd.DataFrame(dict(Observation=y_true, Prediction=y_pred, dataset=['test'] * len(y_true)))\\n\",\n    \"    scores = metrics(data['Observation'], data['Prediction'])\\n\",\n    \"    \\n\",\n    \"    if y_true_fit is not None and y_pred_fit is not None:\\n\",\n    \"        mask = ~np.isnan(y_pred_fit)\\n\",\n    \"        y_true_fit = y_true_fit[mask]\\n\",\n    \"        y_pred_fit = y_pred_fit[mask]\\n\",\n    \"        train_ = pd.DataFrame(dict(Observation=y_true_fit, Prediction=y_pred_fit, dataset=['train'] * len(y_true_fit)))\\n\",\n    \"        data = pd.concat([train_, data])\\n\",\n    \"\\n\",\n    \"    if log_scale:\\n\",\n    \"        data = data.apply(lambda c: np.log(c.values) if c.dtype.type is not np.object_ else c, axis=0)\\n\",\n    \"#         test_ = test_.apply(lambda c: np.log(c.values) if c.dtype.type is not np.object_ else c, axis=0)\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"#     with sb.set(font_scale=2.5):\\n\",\n    \"    g = sb.lmplot(x=\\\"Prediction\\\", y=\\\"Observation\\\", hue=\\\"dataset\\\", ci=None,\\n\",\n    \"                  data=data, palette=\\\"Set1\\\", height=10, legend=False,  markers=[\\\".\\\", \\\"o\\\"],\\n\",\n    \"                  scatter_kws={'s': 25, 'alpha': 0.7}, hue_order=['train', 'test'])\\n\",\n    \"    \\n\",\n    \"    ax = plt.gca()\\n\",\n    \"    tmp = [data[\\\"Prediction\\\"].max(), data[\\\"Prediction\\\"].min(), data[\\\"Observation\\\"].max(), data[\\\"Observation\\\"].max()]\\n\",\n    \"    min_, max_ = np.min(tmp), np.max(tmp)\\n\",\n    \"    margin = (max_- min_) / 15\\n\",\n    \"    min_ = min_ - margin\\n\",\n    \"    max_ = max_ + margin\\n\",\n    \"    ax.set_xlim(min_, max_)\\n\",\n    \"    ax.set_ylim(min_, max_)\\n\",\n    \"    ax.set_xlabel(ax.get_xlabel(), fontsize='xx-large')\\n\",\n    \"    ax.set_ylabel(ax.get_ylabel(), fontsize='xx-large')\\n\",\n    \"    ax.tick_params(axis='both', which='major', labelsize='xx-large')\\n\",\n    \"    ax.plot((min_, max_), (min_, max_), ':', color='gray')\\n\",\n    \"    ax.set_title(prop_name, fontsize='xx-large')\\n\",\n    \"    if log_scale:\\n\",\n    \"        ax.set_title(prop_name + ' (log scale)', fontsize='xx-large')\\n\",\n    \"    ax.text(0.98, 0.03,\\n\",\n    \"            'MAE: %.5f\\\\nRMSE: %.5f\\\\nPearsonR: %.5f\\\\nSpearmanR: %.5f' % (scores['mae'], scores['rmse'], scores['pearsonr'], scores['spearmanr']),\\n\",\n    \"            transform=ax.transAxes, horizontalalignment='right', fontsize='xx-large')\\n\",\n    \"\\n\",\n    \"    ax.legend(loc='upper left', markerscale=2, fancybox=True, shadow=True, frameon=True, facecolor='w', fontsize=18)\\n\",\n    \"\\n\",\n    \"    plt.tight_layout()\\n\",\n    \"    if file_dir and file_name:\\n\",\n    \"        if log_scale:\\n\",\n    \"            plt.savefig(file_dir + '/' + file_name + '_log_scale.png', dpi=300, bbox_inches='tight')\\n\",\n    \"        else:\\n\",\n    \"            plt.savefig(file_dir + '/' + file_name + '.png', dip=300, bbox_inches='tight')\\n\",\n    \"    else:\\n\",\n    \"        print('Missing directory and/or file name information!')\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# Prediction vs. observation plots (cross-validation: list of test trials)\\n\",\n    \"def draw_cv(y_trues, y_preds, y_trues_fit, y_preds_fit, *, prop_name, log_scale=False, file_dir=None, file_name=None):\\n\",\n    \"    cv=len(y_trues)\\n\",\n    \"    \\n\",\n    \"    y_true = np.concatenate(y_trues)\\n\",\n    \"    y_pred = np.concatenate(y_preds)\\n\",\n    \"    y_true_fit = np.concatenate(y_trues_fit)\\n\",\n    \"    y_pred_fit = np.concatenate(y_preds_fit)\\n\",\n    \"    \\n\",\n    \"    mask = ~np.isnan(y_pred_fit)\\n\",\n    \"    y_true_fit = y_true_fit[mask]\\n\",\n    \"    y_pred_fit = y_pred_fit[mask]\\n\",\n    \"\\n\",\n    \"    mask = ~np.isnan(y_pred)\\n\",\n    \"    y_true = y_true[mask]\\n\",\n    \"    y_pred = y_pred[mask]\\n\",\n    \"        \\n\",\n    \"    test_ = pd.DataFrame(dict(Observation=y_true, Prediction=y_pred, dataset=['test'] * len(y_true)))\\n\",\n    \"    train_ = pd.DataFrame(dict(Observation=y_true_fit, Prediction=y_pred_fit, dataset=['train'] * len(y_true_fit)))\\n\",\n    \"    data = pd.concat([train_, test_])\\n\",\n    \"    if log_scale:\\n\",\n    \"        data = data.apply(lambda c: np.log(c.values) if c.dtype.type is not np.object_ else c, axis=0)\\n\",\n    \"        test_ = test_.apply(lambda c: np.log(c.values) if c.dtype.type is not np.object_ else c, axis=0)\\n\",\n    \"\\n\",\n    \"    scores = metrics(test_['Observation'], test_['Prediction'])\\n\",\n    \"\\n\",\n    \"#     sb.set(font_scale=2.5)\\n\",\n    \"    _, ax = plt.subplots(figsize=(8, 8), dpi=150)\\n\",\n    \"    ax = sb.lmplot(x=\\\"Prediction\\\", y=\\\"Observation\\\", hue=\\\"dataset\\\", ci=None,\\n\",\n    \"                  data=data, palette=\\\"Set1\\\", height=10, legend=False,  markers=[\\\".\\\", \\\"o\\\"],\\n\",\n    \"                  scatter_kws={'s': 25, 'alpha': 0.7}, hue_order=['train', 'test'], ax=ax)\\n\",\n    \"    \\n\",\n    \"#     ax = plt.gca()\\n\",\n    \"    tmp = [data[\\\"Prediction\\\"].max(), data[\\\"Prediction\\\"].min(), data[\\\"Observation\\\"].max(), data[\\\"Observation\\\"].max()]\\n\",\n    \"    min_, max_ = np.min(tmp), np.max(tmp)\\n\",\n    \"    margin = (max_- min_) / 15\\n\",\n    \"    min_ = min_ - margin\\n\",\n    \"    max_ = max_ + margin\\n\",\n    \"    ax.set_xlim(min_, max_)\\n\",\n    \"    ax.set_ylim(min_, max_)\\n\",\n    \"    ax.set_xlabel(ax.get_xlabel(), fontsize='xx-large')\\n\",\n    \"    ax.set_ylabel(ax.get_ylabel(), fontsize='xx-large')\\n\",\n    \"    ax.tick_params(axis='both', which='major', labelsize='xx-large')\\n\",\n    \"    ax.plot((min_, max_), (min_, max_), ':', color='gray')\\n\",\n    \"    ax.set_title(prop_name, fontsize='xx-large')\\n\",\n    \"    if log_scale:\\n\",\n    \"        ax.set_title(prop_name + ' (log scale)', fontsize='xx-large')\\n\",\n    \"    ax.text(0.98, 0.03,\\n\",\n    \"            '$%d-fold$ CV\\\\nmae: %.5f\\\\nrmse: %.5f\\\\npearsonr: %.5f\\\\nspearmanr: %.5f' % (cv, scores['mae'], scores['rmse'], scores['pearsonr'], scores['spearmanr']),\\n\",\n    \"            transform=ax.transAxes, horizontalalignment='right', fontsize='xx-large')\\n\",\n    \"    ax.legend(loc='upper left', markerscale=2, fancybox=True, shadow=True, frameon=True, facecolor='w')\\n\",\n    \"    plt.tight_layout()\\n\",\n    \"    if file_dir and file_name:\\n\",\n    \"        if log_scale:\\n\",\n    \"            plt.savefig(file_dir + '/' + file_name + '_log_scale.png', dpi=300, bbox_inches='tight')\\n\",\n    \"        else:\\n\",\n    \"            plt.savefig(file_dir + '/' + file_name + '.png', dip=300, bbox_inches='tight')\\n\",\n    \"    else:\\n\",\n    \"        print('Missing directory and/or file name information!')\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# calculating basic statistics for predictions\\n\",\n    \"def metrics(y_true, y_pred, ignore_nan=True):\\n\",\n    \"    from sklearn.metrics import mean_absolute_error, r2_score, mean_squared_error\\n\",\n    \"    from scipy.stats import pearsonr, spearmanr\\n\",\n    \"    \\n\",\n    \"    if ignore_nan:\\n\",\n    \"        mask = ~np.isnan(y_pred)\\n\",\n    \"        y_true = y_true[mask]\\n\",\n    \"        y_pred = y_pred[mask]\\n\",\n    \"    \\n\",\n    \"    mae = mean_absolute_error(y_true, y_pred)\\n\",\n    \"    rmse = np.sqrt(mean_squared_error(y_true, y_pred))\\n\",\n    \"    r2 = r2_score(y_true, y_pred)\\n\",\n    \"    pr, p_val = pearsonr(y_true, y_pred)\\n\",\n    \"    sr, _ = spearmanr(y_true, y_pred)\\n\",\n    \"    return dict(\\n\",\n    \"        mae=mae,\\n\",\n    \"        rmse=rmse,\\n\",\n    \"        r2=r2,\\n\",\n    \"        pearsonr=pr,\\n\",\n    \"        spearmanr=sr,\\n\",\n    \"        p_value=p_val\\n\",\n    \"    )\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import os\\n\",\n    \"\\n\",\n    \"def quicksort(x):\\n\",\n    \"    if x==[]: return []\\n\",\n    \"\\n\",\n    \"    smallerSorted = quicksort([a for a in x[1:] if os.path.getmtime(str(a)) <= os.path.getmtime(str(x[0]))])\\n\",\n    \"    biggerSorted = quicksort([a for a in x[1:] if os.path.getmtime(str(a)) > os.path.getmtime(str(x[0]))])\\n\",\n    \"\\n\",\n    \"    return(smallerSorted+[x[0]]+biggerSorted)\\n\",\n    \"\\n\",\n    \"def retrieve_nn_models_from_with_cv(*props, score='pearsonr', cv=10):\\n\",\n    \"    for prop in props:\\n\",\n    \"        p = Path(prop)\\n\",\n    \"        models = [x for x in p.iterdir() if x.is_dir() and x.name != '.ipynb_checkpoints']\\n\",\n    \"        models = quicksort(models)\\n\",\n    \"        return [Checker.load(x.name, x.parent) for x in models[:10]], p\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.4\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "samples/transfer_learning.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# Transfer Learning\\n\",\n    \"\\n\",\n    \"There are various methods for transfer learning such as **fine tuning** and **frozen feature extraction**. In this tutorial, we will demonstrate how to perform a **frozen feature extraction** type of transfer learning in XenonPy.\\n\",\n    \"\\n\",\n    \"This tutorial will use **Refractive Index** data, which are collected from [Polymer Genome](https://www.polymergenome.org). We do not provide these data directly in this tutorial. If you want to rerun this notebook locally, you must collect these data yourself.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### frozen feature extraction\\n\",\n    \"\\n\",\n    \"A frozen feature extraction type of transfer learing can be splitted into 2 steps:\\n\",\n    \"\\n\",\n    \"1. you need to have pre-trained model(s) as source model(s). This can be done by accessing **XenonPy.MDL**.\\n\",\n    \"2. you need a feature extractor to generate \\\"neural descriptors\\\" from the source model(s).\\n\",\n    \"Here, we would like to introduce you to our feature extractor, ``xenonpy.descriptor.FrozenFeaturizer``.\\n\",\n    \"\\n\",\n    \"The following codes show a case study of transfer learning between **Refractive Index** of inorganic and organic materials. In this example, the source models will be trained on inorganic compounds and the target will be polymers.\\n\",\n    \"\\n\",\n    \"Let's do this transfer learning step-by-setp.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### useful functions\\n\",\n    \"\\n\",\n    \"Running the following cell will load some commonly used packages, such as [NumPy](https://numpy.org/), [pandas](https://pandas.pydata.org/), and so on. It will also import some in-house functions used in this tutorial. See *'tools.ipynb'* file to check what will be imported.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run tools.ipynb\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### access pre-trained models with MDL class\\n\",\n    \"\\n\",\n    \"We prepared a wide range of APIs to let you query and download our models.\\n\",\n    \"These APIs can be accessed via any HTTP requests.\\n\",\n    \"For convenience, we implemented some of the most popular APIs and wrapped them into XenonPy.\\n\",\n    \"All these functions can be accessed using `xenonpy.mdl.MDL`.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"MDL(api_key='anonymous.user.key', endpoint='http://xenon.ism.ac.jp/api')\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"'0.1.1'\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.mdl import MDL\\n\",\n    \"\\n\",\n    \"mdl = MDL()\\n\",\n    \"mdl\\n\",\n    \"\\n\",\n    \"mdl.version\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 1. query **Refractive Index** models \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 29,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"QueryModelDetailsWith(api_key='anonymous.user.key', endpoint='http://xenon.ism.ac.jp/api', variables={'modelset_has': 'Stable', 'property_has': 'refractive'})\\n\",\n       \"Queryable: \\n\",\n       \" id\\n\",\n       \" transferred\\n\",\n       \" succeed\\n\",\n       \" isRegression\\n\",\n       \" deprecated\\n\",\n       \" modelset\\n\",\n       \" method\\n\",\n       \" property\\n\",\n       \" descriptor\\n\",\n       \" lang\\n\",\n       \" accuracy\\n\",\n       \" precision\\n\",\n       \" recall\\n\",\n       \" f1\\n\",\n       \" sensitivity\\n\",\n       \" prevalence\\n\",\n       \" specificity\\n\",\n       \" ppv\\n\",\n       \" npv\\n\",\n       \" meanAbsError\\n\",\n       \" maxAbsError\\n\",\n       \" meanSquareError\\n\",\n       \" rootMeanSquareError\\n\",\n       \" r2\\n\",\n       \" pValue\\n\",\n       \" spearmanCorr\\n\",\n       \" pearsonCorr\"\n      ]\n     },\n     \"execution_count\": 29,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"query = mdl(modelset_has=\\\"Stable\\\", property_has=\\\"refractive\\\")\\n\",\n    \"query\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 30,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th>modelset</th>\\n\",\n       \"      <th>meanAbsError</th>\\n\",\n       \"      <th>pearsonCorr</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>311</td>\\n\",\n       \"      <td>2949</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>0.282434</td>\\n\",\n       \"      <td>0.873065</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>847</td>\\n\",\n       \"      <td>4017</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>0.290382</td>\\n\",\n       \"      <td>0.827995</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1189</td>\\n\",\n       \"      <td>4702</td>\\n\",\n       \"      <td>Stable inorganic compounds in materials project</td>\\n\",\n       \"      <td>0.293135</td>\\n\",\n       \"      <td>0.876289</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"        id                                         modelset  meanAbsError  \\\\\\n\",\n       \"311   2949  Stable inorganic compounds in materials project      0.282434   \\n\",\n       \"847   4017  Stable inorganic compounds in materials project      0.290382   \\n\",\n       \"1189  4702  Stable inorganic compounds in materials project      0.293135   \\n\",\n       \"\\n\",\n       \"      pearsonCorr  \\n\",\n       \"311      0.873065  \\n\",\n       \"847      0.827995  \\n\",\n       \"1189     0.876289  \"\n      ]\n     },\n     \"execution_count\": 30,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"summary = query('id', 'modelset', 'meanAbsError', 'pearsonCorr').sort_values('meanAbsError')\\n\",\n    \"summary.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 2. download the best performing model based on MAE\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 31,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"100%|██████████| 1/1 [00:00<00:00,  1.26it/s]\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>id</th>\\n\",\n       \"      <th>model</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>2335</td>\\n\",\n       \"      <td>/Users/liuchang/Google 云端硬盘/postdoctoral/tutor...</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"     id                                              model\\n\",\n       \"0  2335  /Users/liuchang/Google 云端硬盘/postdoctoral/tutor...\"\n      ]\n     },\n     \"execution_count\": 31,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"results = mdl.pull(summary.id[0].item())\\n\",\n    \"results\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 3. load **Refractive Index** data from Polymer Genome and calculate the ``Composition`` descriptors\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 32,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>Smiles</th>\\n\",\n       \"      <th>Natoms</th>\\n\",\n       \"      <th>Ntypes</th>\\n\",\n       \"      <th>Volume of Cell($\\\\AA^3$)</th>\\n\",\n       \"      <th>Band Gap, PBE(eV)</th>\\n\",\n       \"      <th>Band Gap, HSE06(eV)</th>\\n\",\n       \"      <th>Dielectric Constant</th>\\n\",\n       \"      <th>Dielectric Constant, Electronic</th>\\n\",\n       \"      <th>Dielectric Constant, Ionic</th>\\n\",\n       \"      <th>Atomization Energy(eV/atom)</th>\\n\",\n       \"      <th>Density(g/cm$^3$)</th>\\n\",\n       \"      <th>Refractive Index</th>\\n\",\n       \"      <th>Ionization Energy(eV)</th>\\n\",\n       \"      <th>Electron Affinity(eV)</th>\\n\",\n       \"      <th>Cohesive Energy(eV/atom)</th>\\n\",\n       \"      <th>composition</th>\\n\",\n       \"      <th>Formula</th>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>ID_name</th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL1</td>\\n\",\n       \"      <td>[C@H]([CH]O)(O[C@H]1[C@H](CO)O[C@@H]([CH][C@@H...</td>\\n\",\n       \"      <td>84</td>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>572.42</td>\\n\",\n       \"      <td>5.62</td>\\n\",\n       \"      <td>7.48</td>\\n\",\n       \"      <td>3.78</td>\\n\",\n       \"      <td>2.85</td>\\n\",\n       \"      <td>0.93</td>\\n\",\n       \"      <td>-5.48</td>\\n\",\n       \"      <td>1.88</td>\\n\",\n       \"      <td>1.69</td>\\n\",\n       \"      <td>6.87</td>\\n\",\n       \"      <td>0.83</td>\\n\",\n       \"      <td>-0.63</td>\\n\",\n       \"      <td>{'O': 20.0, 'H': 40.0, 'C': 24.0}</td>\\n\",\n       \"      <td>H40C24O20</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL2</td>\\n\",\n       \"      <td>[CH][C@H](C[C@@H](C[C@H](C[CH][C]=[CH])C(=[CH]...</td>\\n\",\n       \"      <td>128</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>1258.30</td>\\n\",\n       \"      <td>3.94</td>\\n\",\n       \"      <td>4.83</td>\\n\",\n       \"      <td>2.72</td>\\n\",\n       \"      <td>2.64</td>\\n\",\n       \"      <td>0.08</td>\\n\",\n       \"      <td>-5.90</td>\\n\",\n       \"      <td>1.10</td>\\n\",\n       \"      <td>1.62</td>\\n\",\n       \"      <td>3.56</td>\\n\",\n       \"      <td>1.56</td>\\n\",\n       \"      <td>-0.63</td>\\n\",\n       \"      <td>{'C': 64.0, 'H': 64.0}</td>\\n\",\n       \"      <td>H64C64</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL3</td>\\n\",\n       \"      <td>C[C@H](C[CH][CH][CH]C)[CH2].C[C@@H](C[CH][CH][...</td>\\n\",\n       \"      <td>108</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>762.10</td>\\n\",\n       \"      <td>6.32</td>\\n\",\n       \"      <td>7.70</td>\\n\",\n       \"      <td>2.61</td>\\n\",\n       \"      <td>2.59</td>\\n\",\n       \"      <td>0.02</td>\\n\",\n       \"      <td>-5.14</td>\\n\",\n       \"      <td>1.10</td>\\n\",\n       \"      <td>1.61</td>\\n\",\n       \"      <td>6.19</td>\\n\",\n       \"      <td>0.43</td>\\n\",\n       \"      <td>-0.51</td>\\n\",\n       \"      <td>{'C': 36.0, 'H': 72.0}</td>\\n\",\n       \"      <td>H72C36</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"                                                    Smiles  Natoms  Ntypes  \\\\\\n\",\n       \"ID_name                                                                      \\n\",\n       \"MOL1     [C@H]([CH]O)(O[C@H]1[C@H](CO)O[C@@H]([CH][C@@H...      84       3   \\n\",\n       \"MOL2     [CH][C@H](C[C@@H](C[C@H](C[CH][C]=[CH])C(=[CH]...     128       2   \\n\",\n       \"MOL3     C[C@H](C[CH][CH][CH]C)[CH2].C[C@@H](C[CH][CH][...     108       2   \\n\",\n       \"\\n\",\n       \"         Volume of Cell($\\\\AA^3$)  Band Gap, PBE(eV)  Band Gap, HSE06(eV)  \\\\\\n\",\n       \"ID_name                                                                    \\n\",\n       \"MOL1                      572.42               5.62                 7.48   \\n\",\n       \"MOL2                     1258.30               3.94                 4.83   \\n\",\n       \"MOL3                      762.10               6.32                 7.70   \\n\",\n       \"\\n\",\n       \"         Dielectric Constant  Dielectric Constant, Electronic  \\\\\\n\",\n       \"ID_name                                                         \\n\",\n       \"MOL1                    3.78                             2.85   \\n\",\n       \"MOL2                    2.72                             2.64   \\n\",\n       \"MOL3                    2.61                             2.59   \\n\",\n       \"\\n\",\n       \"         Dielectric Constant, Ionic  Atomization Energy(eV/atom)  \\\\\\n\",\n       \"ID_name                                                            \\n\",\n       \"MOL1                           0.93                        -5.48   \\n\",\n       \"MOL2                           0.08                        -5.90   \\n\",\n       \"MOL3                           0.02                        -5.14   \\n\",\n       \"\\n\",\n       \"         Density(g/cm$^3$)  Refractive Index  Ionization Energy(eV)  \\\\\\n\",\n       \"ID_name                                                               \\n\",\n       \"MOL1                  1.88              1.69                   6.87   \\n\",\n       \"MOL2                  1.10              1.62                   3.56   \\n\",\n       \"MOL3                  1.10              1.61                   6.19   \\n\",\n       \"\\n\",\n       \"         Electron Affinity(eV)  Cohesive Energy(eV/atom)  \\\\\\n\",\n       \"ID_name                                                    \\n\",\n       \"MOL1                      0.83                     -0.63   \\n\",\n       \"MOL2                      1.56                     -0.63   \\n\",\n       \"MOL3                      0.43                     -0.51   \\n\",\n       \"\\n\",\n       \"                               composition    Formula  \\n\",\n       \"ID_name                                                \\n\",\n       \"MOL1     {'O': 20.0, 'H': 40.0, 'C': 24.0}  H40C24O20  \\n\",\n       \"MOL2                {'C': 64.0, 'H': 64.0}     H64C64  \\n\",\n       \"MOL3                {'C': 36.0, 'H': 72.0}     H72C36  \"\n      ]\n     },\n     \"execution_count\": 32,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"pg = <load your polymer genome data>\\n\",\n    \"pg.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 33,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>ID_name</th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL1</td>\\n\",\n       \"      <td>4.095238</td>\\n\",\n       \"      <td>98.42891</td>\\n\",\n       \"      <td>168.333333</td>\\n\",\n       \"      <td>11.561905</td>\\n\",\n       \"      <td>7.721000</td>\\n\",\n       \"      <td>1488.27381</td>\\n\",\n       \"      <td>54.596505</td>\\n\",\n       \"      <td>20.761905</td>\\n\",\n       \"      <td>51.333333</td>\\n\",\n       \"      <td>51.666667</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.711</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL2</td>\\n\",\n       \"      <td>3.500000</td>\\n\",\n       \"      <td>85.00000</td>\\n\",\n       \"      <td>172.000000</td>\\n\",\n       \"      <td>9.700000</td>\\n\",\n       \"      <td>6.509500</td>\\n\",\n       \"      <td>2560.14000</td>\\n\",\n       \"      <td>44.899820</td>\\n\",\n       \"      <td>27.205000</td>\\n\",\n       \"      <td>52.000000</td>\\n\",\n       \"      <td>53.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.711</td>\\n\",\n       \"      <td>0.18050</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>1270.0</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL3</td>\\n\",\n       \"      <td>2.666667</td>\\n\",\n       \"      <td>83.00000</td>\\n\",\n       \"      <td>166.000000</td>\\n\",\n       \"      <td>11.166667</td>\\n\",\n       \"      <td>4.675667</td>\\n\",\n       \"      <td>1713.52000</td>\\n\",\n       \"      <td>48.866426</td>\\n\",\n       \"      <td>20.306667</td>\\n\",\n       \"      <td>45.000000</td>\\n\",\n       \"      <td>46.333333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.711</td>\\n\",\n       \"      <td>0.18050</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>1270.0</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>3 rows × 290 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"         ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"ID_name                                                                 \\n\",\n       \"MOL1              4.095238           98.42891              168.333333   \\n\",\n       \"MOL2              3.500000           85.00000              172.000000   \\n\",\n       \"MOL3              2.666667           83.00000              166.000000   \\n\",\n       \"\\n\",\n       \"         ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"ID_name                                                            \\n\",\n       \"MOL1             11.561905           7.721000         1488.27381   \\n\",\n       \"MOL2              9.700000           6.509500         2560.14000   \\n\",\n       \"MOL3             11.166667           4.675667         1713.52000   \\n\",\n       \"\\n\",\n       \"         ave:bulk_modulus  ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"ID_name                                                             \\n\",\n       \"MOL1            54.596505  20.761905                    51.333333   \\n\",\n       \"MOL2            44.899820  27.205000                    52.000000   \\n\",\n       \"MOL3            48.866426  20.306667                    45.000000   \\n\",\n       \"\\n\",\n       \"         ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"ID_name                              ...                                  \\n\",\n       \"MOL1                      51.666667  ...                1.0         1.0   \\n\",\n       \"MOL2                      53.500000  ...                1.0         1.0   \\n\",\n       \"MOL3                      46.333333  ...                1.0         1.0   \\n\",\n       \"\\n\",\n       \"         min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"ID_name                                                                \\n\",\n       \"MOL1                 0.711                   0.02658           110.0   \\n\",\n       \"MOL2                 0.711                   0.18050           110.0   \\n\",\n       \"MOL3                 0.711                   0.18050           110.0   \\n\",\n       \"\\n\",\n       \"         min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"ID_name                                                                   \\n\",\n       \"MOL1                      120.0               162.0               288.6   \\n\",\n       \"MOL2                      120.0               162.0               288.6   \\n\",\n       \"MOL3                      120.0               162.0               288.6   \\n\",\n       \"\\n\",\n       \"         min:sound_velocity  min:Polarizability  \\n\",\n       \"ID_name                                          \\n\",\n       \"MOL1                  317.5            0.666793  \\n\",\n       \"MOL2                 1270.0            0.666793  \\n\",\n       \"MOL3                 1270.0            0.666793  \\n\",\n       \"\\n\",\n       \"[3 rows x 290 columns]\"\n      ]\n     },\n     \"execution_count\": 33,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import Compositions\\n\",\n    \"\\n\",\n    \"pg_desc = Compositions().transform(pg['composition'])\\n\",\n    \"pg_desc.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 4. predict Polymer Genomer **Refractive Index** directly from a model trained on inorganic compounds\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 34,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"<Checker> includes:\\n\",\n       \"\\\"mse_3\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mse_3.pth.s\\n\",\n       \"\\\"mse_1\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mse_1.pth.s\\n\",\n       \"\\\"mae_2\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mae_2.pth.s\\n\",\n       \"\\\"r2_5\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/r2_5.pth.s\\n\",\n       \"\\\"mse_5\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mse_5.pth.s\\n\",\n       \"\\\"r2_1\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/r2_1.pth.s\\n\",\n       \"\\\"mae_4\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mae_4.pth.s\\n\",\n       \"\\\"r2_3\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/r2_3.pth.s\\n\",\n       \"\\\"mae_3\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mae_3.pth.s\\n\",\n       \"\\\"r2_4\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/r2_4.pth.s\\n\",\n       \"\\\"mse_2\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mse_2.pth.s\\n\",\n       \"\\\"mae_1\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mae_1.pth.s\\n\",\n       \"\\\"mae_5\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mae_5.pth.s\\n\",\n       \"\\\"r2_2\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/r2_2.pth.s\\n\",\n       \"\\\"mse_4\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/mse_4.pth.s\\n\",\n       \"\\\"pearsonr_5\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/pearsonr_5.pth.s\\n\",\n       \"\\\"pearsonr_1\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/pearsonr_1.pth.s\\n\",\n       \"\\\"pearsonr_3\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/pearsonr_3.pth.s\\n\",\n       \"\\\"pearsonr_4\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/pearsonr_4.pth.s\\n\",\n       \"\\\"pearsonr_2\\\": /Users/liuchang/Google 云端硬盘/postdoctoral/tutorial/xenonpy_hands-on_20190925 2/inorganic.crystal.refractive_index/xenonpy.compositions/pytorch.nn.neural_network/290-187-151-110-102-1-$wHSyTrhF/checkpoints/pearsonr_2.pth.s\"\n      ]\n     },\n     \"execution_count\": 34,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.model.training import Checker\\n\",\n    \"\\n\",\n    \"checker = Checker(results.model[0])\\n\",\n    \"checker.checkpoints\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 35,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"Trainer(clip_grad=None, cuda=None, epochs=200, loss_func=None,\\n\",\n       \"        lr_scheduler=None,\\n\",\n       \"        model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=187, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(187, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(...\\n\",\n       \"    (normalizer): BatchNorm1d(110, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=110, out_features=102, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(102, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=102, out_features=1, bias=True)\\n\",\n       \"),\\n\",\n       \"        non_blocking=False, optimizer=None)\"\n      ]\n     },\n     \"execution_count\": 35,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# --- pre-trained model for prediction\\n\",\n    \"from xenonpy.model.training import Trainer\\n\",\n    \"\\n\",\n    \"trainer = Trainer.load(from_=checker)\\n\",\n    \"trainer\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 36,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Missing directory and/or file name information!\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x720 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"trainer.reset(to='mae_1')\\n\",\n    \"\\n\",\n    \"y_pred = trainer.predict(x_in=torch.tensor(pg_desc.values, dtype=torch.float)).detach().numpy().flatten()\\n\",\n    \"y_true = pg['Refractive Index'].values\\n\",\n    \"\\n\",\n    \"draw(y_true, y_pred, prop_name='Refractive Index')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 5. frozen feature extraction\\n\",\n    \"\\n\",\n    \"``FrozenFeaturizer`` accepts a [Pytorch](https://pytorch.org) model as its input.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 37,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"FrozenFeaturizer(cuda=False, depth=None,\\n\",\n       \"                 model=SequentialLinear(\\n\",\n       \"  (layer_0): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=290, out_features=187, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(187, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_1): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=187, out_features=151, bias=...\\n\",\n       \"    (normalizer): BatchNorm1d(110, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (layer_3): LinearLayer(\\n\",\n       \"    (linear): Linear(in_features=110, out_features=102, bias=True)\\n\",\n       \"    (dropout): Dropout(p=0.1)\\n\",\n       \"    (normalizer): BatchNorm1d(102, eps=0.1, momentum=0.1, affine=True, track_running_stats=True)\\n\",\n       \"    (activation): ReLU()\\n\",\n       \"  )\\n\",\n       \"  (output): Linear(in_features=102, out_features=1, bias=True)\\n\",\n       \"),\\n\",\n       \"                 on_errors='raise', return_type='any')\"\n      ]\n     },\n     \"execution_count\": 37,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.descriptor import FrozenFeaturizer\\n\",\n    \"\\n\",\n    \"# --- init FrozenFeaturizer with NN model\\n\",\n    \"ff = FrozenFeaturizer(model=trainer.model)\\n\",\n    \"ff\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"The following code will generate new \\\"neural descriptors\\\" from the corresponding neural network model.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 38,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"neural_descriptors = ff.transform(pg_desc, depth=2 ,return_type='df')\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Here, ``depth=x`` means that the last x hidden layer from the output neuron(s) will be concatenated and used as the neural descriptor.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 39,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>L(-2)_1</th>\\n\",\n       \"      <th>L(-2)_2</th>\\n\",\n       \"      <th>L(-2)_3</th>\\n\",\n       \"      <th>L(-2)_4</th>\\n\",\n       \"      <th>L(-2)_5</th>\\n\",\n       \"      <th>L(-2)_6</th>\\n\",\n       \"      <th>L(-2)_7</th>\\n\",\n       \"      <th>L(-2)_8</th>\\n\",\n       \"      <th>L(-2)_9</th>\\n\",\n       \"      <th>L(-2)_10</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>L(-1)_93</th>\\n\",\n       \"      <th>L(-1)_94</th>\\n\",\n       \"      <th>L(-1)_95</th>\\n\",\n       \"      <th>L(-1)_96</th>\\n\",\n       \"      <th>L(-1)_97</th>\\n\",\n       \"      <th>L(-1)_98</th>\\n\",\n       \"      <th>L(-1)_99</th>\\n\",\n       \"      <th>L(-1)_100</th>\\n\",\n       \"      <th>L(-1)_101</th>\\n\",\n       \"      <th>L(-1)_102</th>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>ID_name</th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"      <th></th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL1</td>\\n\",\n       \"      <td>-1.499497</td>\\n\",\n       \"      <td>1.254353</td>\\n\",\n       \"      <td>-1.071701</td>\\n\",\n       \"      <td>-2.697761</td>\\n\",\n       \"      <td>-1.807236</td>\\n\",\n       \"      <td>-2.01011</td>\\n\",\n       \"      <td>-1.944547</td>\\n\",\n       \"      <td>-1.533609</td>\\n\",\n       \"      <td>-1.380140</td>\\n\",\n       \"      <td>-0.416400</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>-0.146019</td>\\n\",\n       \"      <td>-0.599903</td>\\n\",\n       \"      <td>-0.168826</td>\\n\",\n       \"      <td>0.135178</td>\\n\",\n       \"      <td>0.607779</td>\\n\",\n       \"      <td>0.700811</td>\\n\",\n       \"      <td>-1.405137</td>\\n\",\n       \"      <td>-0.209901</td>\\n\",\n       \"      <td>-0.297132</td>\\n\",\n       \"      <td>0.071797</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL2</td>\\n\",\n       \"      <td>-1.295168</td>\\n\",\n       \"      <td>1.335794</td>\\n\",\n       \"      <td>-1.657156</td>\\n\",\n       \"      <td>-3.456876</td>\\n\",\n       \"      <td>-1.372355</td>\\n\",\n       \"      <td>-2.39925</td>\\n\",\n       \"      <td>-1.761726</td>\\n\",\n       \"      <td>-1.736894</td>\\n\",\n       \"      <td>-1.464569</td>\\n\",\n       \"      <td>-1.349594</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>0.026329</td>\\n\",\n       \"      <td>-0.161609</td>\\n\",\n       \"      <td>-0.542276</td>\\n\",\n       \"      <td>0.246088</td>\\n\",\n       \"      <td>1.047052</td>\\n\",\n       \"      <td>0.067110</td>\\n\",\n       \"      <td>-1.963629</td>\\n\",\n       \"      <td>-0.109732</td>\\n\",\n       \"      <td>-0.328646</td>\\n\",\n       \"      <td>0.103320</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>MOL3</td>\\n\",\n       \"      <td>-1.514608</td>\\n\",\n       \"      <td>1.205772</td>\\n\",\n       \"      <td>-1.270560</td>\\n\",\n       \"      <td>-2.831598</td>\\n\",\n       \"      <td>-1.677628</td>\\n\",\n       \"      <td>-2.02982</td>\\n\",\n       \"      <td>-1.933016</td>\\n\",\n       \"      <td>-1.568646</td>\\n\",\n       \"      <td>-1.363735</td>\\n\",\n       \"      <td>-0.656209</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>-0.118927</td>\\n\",\n       \"      <td>-0.526747</td>\\n\",\n       \"      <td>-0.172702</td>\\n\",\n       \"      <td>0.154083</td>\\n\",\n       \"      <td>0.656889</td>\\n\",\n       \"      <td>0.607651</td>\\n\",\n       \"      <td>-1.418730</td>\\n\",\n       \"      <td>-0.193771</td>\\n\",\n       \"      <td>-0.278343</td>\\n\",\n       \"      <td>0.091769</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>3 rows × 212 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"          L(-2)_1   L(-2)_2   L(-2)_3   L(-2)_4   L(-2)_5  L(-2)_6   L(-2)_7  \\\\\\n\",\n       \"ID_name                                                                        \\n\",\n       \"MOL1    -1.499497  1.254353 -1.071701 -2.697761 -1.807236 -2.01011 -1.944547   \\n\",\n       \"MOL2    -1.295168  1.335794 -1.657156 -3.456876 -1.372355 -2.39925 -1.761726   \\n\",\n       \"MOL3    -1.514608  1.205772 -1.270560 -2.831598 -1.677628 -2.02982 -1.933016   \\n\",\n       \"\\n\",\n       \"          L(-2)_8   L(-2)_9  L(-2)_10  ...  L(-1)_93  L(-1)_94  L(-1)_95  \\\\\\n\",\n       \"ID_name                                ...                                 \\n\",\n       \"MOL1    -1.533609 -1.380140 -0.416400  ... -0.146019 -0.599903 -0.168826   \\n\",\n       \"MOL2    -1.736894 -1.464569 -1.349594  ...  0.026329 -0.161609 -0.542276   \\n\",\n       \"MOL3    -1.568646 -1.363735 -0.656209  ... -0.118927 -0.526747 -0.172702   \\n\",\n       \"\\n\",\n       \"         L(-1)_96  L(-1)_97  L(-1)_98  L(-1)_99  L(-1)_100  L(-1)_101  \\\\\\n\",\n       \"ID_name                                                                 \\n\",\n       \"MOL1     0.135178  0.607779  0.700811 -1.405137  -0.209901  -0.297132   \\n\",\n       \"MOL2     0.246088  1.047052  0.067110 -1.963629  -0.109732  -0.328646   \\n\",\n       \"MOL3     0.154083  0.656889  0.607651 -1.418730  -0.193771  -0.278343   \\n\",\n       \"\\n\",\n       \"         L(-1)_102  \\n\",\n       \"ID_name             \\n\",\n       \"MOL1      0.071797  \\n\",\n       \"MOL2      0.103320  \\n\",\n       \"MOL3      0.091769  \\n\",\n       \"\\n\",\n       \"[3 rows x 212 columns]\"\n      ]\n     },\n     \"execution_count\": 39,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"neural_descriptors.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"As an example, **-1** in the column names denotes the last layer.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 41,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"DescriptorHeatmap(bc=True, col_cluster=True, col_colors=None, col_linkage=None,\\n\",\n       \"                  figsize=(70, 10), mask=None, method='average',\\n\",\n       \"                  metric='euclidean', pivot_kws=None, row_cluster=False,\\n\",\n       \"                  row_colors=None, row_linkage=None, save=None)\"\n      ]\n     },\n     \"execution_count\": 41,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 5040x720 with 5 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"from xenonpy.visualization import DescriptorHeatmap\\n\",\n    \"\\n\",\n    \"sorted_prop = pg['Refractive Index'].sort_values()\\n\",\n    \"sorted_desc = neural_descriptors.loc[sorted_prop.index]\\n\",\n    \"\\n\",\n    \"heatmap = DescriptorHeatmap( \\n\",\n    \"        bc=True,  # use box-cox transform \\n\",\n    \"#         save=dict(fname='heatmap_density', dpi=150, bbox_inches='tight'),  # save fingure to file\\n\",\n    \"        figsize=(70, 10))\\n\",\n    \"heatmap.fit(sorted_desc)\\n\",\n    \"heatmap.draw(sorted_prop)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 6. use neural descriptors to train new models.\\n\",\n    \"\\n\",\n    \"In this case, **Random Forest** model and **Bayesian Ridge Linear** model will be trained.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 42,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# split data\\n\",\n    \"from xenonpy.datatools import Splitter\\n\",\n    \"\\n\",\n    \"y = pg['Refractive Index']\\n\",\n    \"splitter = Splitter(len(y), test_size=0.2)\\n\",\n    \"\\n\",\n    \"X_train, X_test, y_train, y_test = splitter.split(neural_descriptors, y.values.reshape(-1, 1))\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 43,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"RandomForestRegressor(bootstrap=True, criterion='mse', max_depth=None,\\n\",\n       \"                      max_features='auto', max_leaf_nodes=None,\\n\",\n       \"                      min_impurity_decrease=0.0, min_impurity_split=None,\\n\",\n       \"                      min_samples_leaf=1, min_samples_split=2,\\n\",\n       \"                      min_weight_fraction_leaf=0.0, n_estimators=100,\\n\",\n       \"                      n_jobs=None, oob_score=False, random_state=None,\\n\",\n       \"                      verbose=0, warm_start=False)\"\n      ]\n     },\n     \"execution_count\": 43,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# random forest\\n\",\n    \"from sklearn.ensemble import RandomForestRegressor\\n\",\n    \"\\n\",\n    \"rf = RandomForestRegressor(n_estimators=100)\\n\",\n    \"rf.fit(X_train, y_train.ravel())\\n\",\n    \"y_pred = rf.predict(X_test)\\n\",\n    \"y_fit_pred = rf.predict(X_train)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 44,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Missing directory and/or file name information!\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x720 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"draw(y_test.ravel(), y_pred, y_train.ravel(), y_fit_pred, prop_name='refractive index')\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 45,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"BayesianRidge(alpha_1=1e-06, alpha_2=1e-06, compute_score=False, copy_X=True,\\n\",\n       \"              fit_intercept=True, lambda_1=1e-06, lambda_2=1e-06, n_iter=300,\\n\",\n       \"              normalize=False, tol=0.001, verbose=False)\"\n      ]\n     },\n     \"execution_count\": 45,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# bayesian linear\\n\",\n    \"from sklearn.linear_model import BayesianRidge\\n\",\n    \"\\n\",\n    \"br = BayesianRidge()\\n\",\n    \"br.fit(X_train, y_train.ravel())\\n\",\n    \"y_pred = br.predict(X_test)\\n\",\n    \"y_fit_pred = br.predict(X_train)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 46,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Missing directory and/or file name information!\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"iVBORw0KGgoAAAANSUhEUgAAAsgAAALICAYAAABiqwZ2AAAABHNCSVQICAgIfAhkiAAAAAlwSFlzAAALEgAACxIB0t1+/AAAADh0RVh0U29mdHdhcmUAbWF0cGxvdGxpYiB2ZXJzaW9uMy4xLjEsIGh0dHA6Ly9tYXRwbG90bGliLm9yZy8QZhcZAAAgAElEQVR4nOzde3xU9Z3/8deZyWRyT0gCgQmEO19ESqWKF6xXUFHrrXal3mp/293t/tpur1q12v7adamXbbvb7XbXulat1botCoriBVQuIiiIF0Thi5F7wi0BEiDJZDJzfn/MhEZMQgLJnJnk/Xw88kgyc+ac98QhfuaTz/kex3VdREREREQkzud1ABERERGRVKICWURERESkDRXIIiIiIiJtqEAWEREREWlDBbKIiIiISBsqkEVE+gBjjON1BhGRvkIFsohIDzLG3GyMqTbGNBljfp+E440yxrwIDG9z22ZjzNO9fezEsVxjzL/30L4WG2Pe7Yl9iYgcjwyvA4iI9BXGmHLgX4H5wH3AziQc9nLgoiNuuwo4lIRjA5wB7EjSsUREkkIFsohIzylNfH7KWrvUqxDW2neSeKw3knUsEZFkcXQlPRGRvzLGbCbeAR4OnAOsstaeb4wJALcDXwGGAdXAw8DPrbUtxpifAv/viN2NBH4KjAeWAn8H1AGfB2qA24BrgNFADFib2N/h8QhjTAkwC7gMGAB8BPzSWvtoO8f8g7X2q4nn8K619srE+IUBRllr3Tb7/Q7wb4nbNxtjyoCfA5cCRcC6RJbZR/l5ucCvrbXfNcaMADYB1wMXAFcAWYnn/l1r7fo2jzsNuBs4NfEzuRv4ElBkrT2pzXYzgR8CE4CDwLPArdbaPYn7/wTMBD5vrV2RuO0i4AXgbmvtHZ3lFxFpj2aQRUQ+7R+APcQLvF8kbvsz8CPgUeALwIPAHcSLZBLffyXx9b/wydGDk4FziRdyP7HWVgEPAd8H/pP4iMT/AYLAXxKjGhhjsoDXiBeOPydeJC8D/mCMuTFxzNb53y8Cd7XzXB4GRhAvytu6EViSKI4HAMuBGcCdwJXAO4ksXzvKz6o9vwWiwJeB/wtMAf7SeqcxZiKwGMghXkzfDHwbmNp2J4ki/n+Jv3G4CriV+M9qqTEmL7HZN4Aq4PfGmKAxpjTxnN/g029YRES6RCMWIiKfdgD4urW2GcAYcx7xAu1b1trfJrZZaIzZDTxgjPmNtXalMeb9xH0ft44eGGMg/rv2G9batxK3ZRLvBv/AWvtg60GNMXuAV4CziBeGXwFOAKZba19JbPaKMaYCmGat/aMxZkvi9nestZvbeS5PA/uIF6KvJY5zAvGi/abENt8lXkRPttauSdz2ojEmCNxnjPmTtbaxGz+/N6y1f9fmeY0AfmqMGW2t/Zj4G4sm4CJrbV1im+XEu+Otj8kn/kbjSWvtTW1uXwG8T7wwvs9au98Y81XgZeJvYCYSL7yvs9a2dCOziMhhKpBFRD7NthbHCRcmPj9tjGn7e/MZ4AHgYmBlJ/tzgQ/a7LwZuAQgMdowFhjDX0+2CyY+nwvsa1Mctz7+sm48kbAx5gngy8aYbyeO/RXi4wpPtXl+HwEfHvH8ngauIz4GsaSrxyTe5W5rW+JzbuLzucArrcVxIueWRPFbmLhpKpAHzD0i00fExz8uJn4iJNbaV40x/0a8++0DrungzYKISJdoxEJE5NN2HfF968l324FIm4/W7cqPsr/6IzuwxpjzjTFriK90sQD4Vpu7W9c0HthOlmPxMFAMXJxYL/l64C/W2taVLkqJzylHjvhoHYs42vM70pEraMQSn1v/n1NCfITlSG1Xw2j9mT/eTq6J7WT6fWL/9cCr3cwrIvIJ6iCLiBzdfuJF3lTis7VHqunOzowxI4HniBdyM4l3rGPGmKnE53bbHvdz7Tz+BKDEWntkp7Zd1tq3jDFrgWuJnxA3DHjkiOO8DXy9g11s6spxumEPMLid2wcekQngH4HV7Wwbbv3CGOMnXiBvIn6C4QPA1T2SVET6JXWQRUSObhHx35dF1tq3Wj+IF833EF+lojumANnAv1pr11lrWzuslyQ+t/5uXgIUG2POOeLx/w78d+Lr9gr29jxMfCzhK0Cltfa1NvctIj7isfWI53cS8VU4crp4jK5aCEw3xhwuiI0xg4HT22yzgvic8ogjMq0D/plPrv18J3Aa8LfE56m/mJhLFhE5Juogi4gc3QvETwL7kzHm58S7raOIF2ou7Xc4O/M28VGBfzbG3E280L6S+OoZ8NdZ3YeJj1782RjzY2Aj8dUqLgT+JrHNvsTnLxpjnm+7lNoRHgPuJV4g//SI+35JfOxikTHmXmAr8VUvfgwsttZuo2f9jPjzfcUY0/oz/Al/HS3BWrs38bP+f4nVPF4g/nP5IfGu+n0AxphTiRfI/22tXZy47VrgP4wxS6y1Pd39FpF+QB1kEZGjSKwffBlwP/BN4CXixfHLwJmta/J2Y3+VxEcrioC5xJeOGwOcT3zO+ZzEdoeAs4mvyzyL+BrApwFXWWufTOxuPvF1hu8hXuh2dMzdiW2dxPHa3reLePd2NfFl7V4Cvkr8qoBXdue5dUWiaD2T+HN9mHg3/FniP4u2290F/D3xn8c84svaHSC+qsdiY0wu8cK/ivgScK1a32g8aozR/+dEpNt0oRARERERkTb0zlpEREREpA0VyCIiIiIibahAFhERERFpo78VyBnEL6eq1TtEREREpF39rVAcCmyqrT1ILNZ/Tk4cMCCHffsavI4haUCvFekKvU6kq/Raka5K9mulpmY3q1ev5IYbrnXau7+/dZD7pYwMv9cRJE3otSJdodeJdJVeK9JVyX6tlJYO4uSTT+3wfhXIIiIiItLnua7LsmWLqK7eDsSL5I6oQBYRERGRPi8cDrNt2xaqqo5+cdD+NoMsIiIiIv1ILBbDcRyysrK4+urrCAQCR32MOsgiIiIi0ifFYjFeffUlli1bhOu6ZGZm4jjtnpf3Ceogi4iIiEif5DgO2dk5BIPBLhXGrVQgi4iIiEifEovFaGpqIicnh6lTz+5WcQwasRARERGRPmbx4oXMnfu/RCKRbhfHoA5yhw4dqqe+fi+RSLPXUY7b1q1eJ+g+vz+D7Oxc8vMHEAhkeh1HRERE0sgJJ3yG0tJBXTohrz0qkNvR3Bxm//49jB49mry8vGN65yHHznVdmpubqa2tZffubQwaNExFsoiIiHQqGo2yc2cV5eUVDBkSYsiQ0DHvSyMW7airqyEUCpGfn6/i2AOO4xAMBgmFQgwaNIjNmz+ipaXF61giIiKSwlavfpN5856irm7/ce9LBXI7mpvDFBUVeR1DgJKSEjIy/Lz++lKvo4iIiEgKmzx5Chdd9AUKC4+/hlOB3I5otOWYZ1akZ2VmZuL3+/j44484dOiQ13FEREQkhbS0RHjrrTeIRqMEAgFGjRrbI/tVgdwBjVakhtb/Do7jsG/fXo/TiIiISCrZtm0Lq1atoLp6e4/uVyfpSZpwicWiXocQERGRFDJy5Bi+/OWbGDCguEf3qw6ypAl19EVERAQikWZefPFZamv3APR4cQwqkAWora2loaGhR/Z12223YYzpkX2JiIiIHKmxsZHdu3eyf/++XjuGCuR+bsmSJcyYMYO9e3tmvnfmzJncd999PbIvERERkVbRaHzUsqCgkOuu+yqjR4/rtWOpQO7n1qxZQ319fY/tb/LkyVxxxRU9tj8RERGR5uZmnn76z7zzzioAMjJ6d7UxFcgiIiIiktIyMjIoKiqmsHBAco6XlKNISrrtttuYO3cuANOmTePUU08F4msPT5w4kUcffZSsrCweeeQRjDG8+OKLPPbYY6xbt45wOMygQYOYMWMG3/3ud8nMzPzEPq21h79/9913ue+++7jvvvt4//33yc3N5ZJLLuHmm28mKyvLmycvIiIiKa+pqTFxhd0spk2bkbTjqkDux2bOnMnBgwdZuHAht99+O2PHjuX+++/n7bffZsuWLdxyyy1s376dMWPGMHv2bO68807OP/98br75ZiKRCAsXLuT3v/89OTk5fOtb3+rwOHv37uVrX/saF198MZdffjlLly7lj3/8I5mZmfzwhz9M4jMWERGRdOG6LvPnz8Xn83Plldck9RoVKpCTzI3FiKxZQ8uWLWQMH05g0iQcnzeTLpMnT8YYw8KFC5k+fTpDhw7l/vvvp6Ghgfvvv5/TTjvt8LYPPfQQkydP5r/+678Ov0Cvu+46pk2bxksvvdRpgVxXV8edd97JjTfeCMA111zDJZdcwrPPPqsCWURERNrlOA6f+9xp+P2+pF/AzZMC2Rjz98B3gFHATuAPwD3W2nAnj/kt8I127vqDtfarvZGzp7mxGPU/v5vw8uUQjYLfT3DqVAp+dLtnRXJ7srKymDJlyidumzdvHo2NjZ94gdbW1lJQUNClJeIuvvjiT3w/fvx4XnzxxZ4JLCIiIn1GQ0MD+/fvJRQaysiRoz3JkPQC2RhzC3Af8K/AS8BEYBYwFrihk4d+LrH9T4+4fU/Pp+wdkTVrCC9fjq+kFMfnw43FCL++nMiaNWSedJLX8Q4rKirCd0TBHggEWLVqFc899xwbN25k69at1NbWAlBeXn7UfRYXf3IR78zMzMPLtYiIiIi0WrZsEdu3b+GGG/7u8DlOyZbUAtkYkwncDvzJWtv6t/VXjDHFwI+NMTdba3e28zg/MAn4F2vtG8lL3LNatmyBaPRwt9jx+SAWpWXL1pQqkP1+/6du++Uvf8kDDzzAhAkTOOmkk7jiiiuYPHkyd911Fzt27DjqPo8suEVERETac9ZZ57F//z7PimNIfge5BTgbOHLh3Wbi1xLu6CcxHsgB3u29aL0vY/hw8PtxY7HDHWR8fjKGV3gdrVNVVVU88MADXHHFFZ+6CEhNTY1HqURERKSvqK+vZ+XKFUyZcgbZ2TlkZ+d4miepBbK1Ngasbf3eGFMEXATcAsyz1m7t4KGfS3y+yhhzP1AOfATcba19tBcj96jApEkEp04l/PpyiEXB5yd45lQCkyZ5lqm1s+u6bofb1NXVATBmzJhP3L5kyRI2b95MWVlZ7wUUERGRPu+DDz7gvfdWM27cCRQVJWet4854toqFMWYKsDLx7Wbg5k42by2Qy4C/AwLA3wJ/MMYUWmt/01s5e5Lj81Hwo9sTq1hsJWN4haerWMBfZ4MffPBBzj777Ha3GTNmDKFQiPvvv59wOMzgwYNZs2YNc+fOJRgMcujQoWRGFhERkT7m9NNPp6ysgvz8Aq+jAN4u87YdOI940ftjYKUx5kxr7YftbPtfwMvAC4kuNMDzxphXgbuMMb+z1jZ39cAlJXmd3r+1oz52D3B8PjJPOillZo4vvfRSFixYwJw5c1i5ciWlpaWf2iYzM5MHHniAe+65h0cffRTXdamoqOBHP/oRLS0tzJo1i7Vr1zJx4sReyxkMZjBgQC4DB+b32jEkTj9j6Qq9TqSr9FqRjuzfv5958+ZxxRVX4DgOo0Yd/aT/ZHE6+9N6shhjBhPvIv/RWvv33Xjc94BfAeNt66XbOjcC2FRbe5BYrOPnvXXrBk4++eSuxpBetnr1al55ZTHTpl1IRcUIr+P0aQMH5rNnzwGvY0iK0+tEukqvFenM7t27eOmlZ5kx4zImTBjjyWtl4MD8dhdYTurf9o0xJcaYG40xI9venli5ogoY1sHj/sYYc1k7d7VepzhtlnoTERER6c8ikQgAgwaVcd11/4eBA1PvXKZkD7/6iV8U5Ja2NxpjxhPv7na0SsXfAw8ZYwraPCYDmAm8a63d2ytpRURERKTH1NfX8cQTj7Bhwzqg/aVlU0GyV7HYbYz5NfAdY0wdsBAYDfwE2Ar8AsAYMzmx/TuJh/4MWAS8aIy5N3Hbd4ATgAuS9wxERERE5Fjl5OQwZEiI4uJPn/OUSrxYPuFm4J+ALwDzgbuIXyHvdGtt66K6cxMfAFhrXyd+Qt8h4CHgccAFzrfWLk1edBERERHprrq6/bS0tJCREeCCCy6ltHSg15E6lfRVLKy1UeC3iY+OthnRzm2vo26xiLTDDYehugpC5TjBoNdxRESkjebmZubO/TPDhg1n2rQZXsfpEi+XeRMROW5uOEzLHbfi7qjGGRIiY9a9KpJFRFJIZmYmp59+FmVlg72O0mXeXaFCRKQnVFfFi+OSUtzq6ngnWUREPFdTs4c9e3YBMH78BAYMKPY4UdepQBaRtOGGw7ibNsZHKlqFynGGhHBranBCIQilzkLzIiL9leu6LFr0Eq++uoBUuOZGd2nEQkTSQkejFE4wSMasezWDLCKSQhzH4aKLLsN1XRyn3WtxpDR1kEUkPXQySuEEgzgjR6k4FhHx2K5dO3j77ZUAFBQUUlhY5HGiY6MCWUTSg0YpRERS3oYN6/jww/cJtx2FS0MasRCRtKBRChGR1NU6SnHmmedyyimnE0zz39HqIAu1tbU0NDT0yr6bm5vZtWtXr+xb+h+NUoiIpJ7q6u08/fRfaGpqxOfzkZ2d43Wk46YCuZ9bsmQJM2bMYO/evT2+76qqKi677DJef/31Ht+3iIiIpIaWlhaam5uJRqNeR+kxGrHo59asWUN9fX2v7Hv79u1s3ry5V/YtIiIi3gqHwwSDQSoqRjB0aAU+X9/pu/adZyIiIiIiSbFjRxWPPfYgVVVbAfpUcQwqkJOq5kCYJ9/cwjcfWcVN9y/nm4+s4sk3t1BzwJszPW+77Tb+8z//E4Bp06Zx4403AlBZWck3v/lNTjnlFD772c/y5S9/mddee+0Tj21ubmbWrFlMmzaNiRMncs455/Czn/2Muro6AObMmcNXvvIVAG6//XaMMUl8ZiIiItKbBgwoZvjwURQXl3odpVdoxCJJ1lfX8asX1hNpiZGXlUFJXpBINMb8d6tZsHYn3794PONDhUnNNHPmTA4ePMjChQu5/fbbGTt2LNZarrvuOkpLS/n6179OIBDgueee4x/+4R/45S9/ySWXXALAP//zP/Pcc8/xla98hWHDhvHRRx/x+OOPs2XLFh566CGmTJnCP/7jP3L//fczc+ZMTj755KQ+NxEREel5e/bspqSklKysbKZPv9jrOL1GBXIS1BwI86sX1uP3OeTn/fXs+8wMP8V5fhqaW/jVC+v5+TUnUZqfvLPzJ0+ejDGGhQsXMn36dIYOHcqNN95IcXExc+fOJScnfhbqDTfcwE033cSsWbOYPn06mZmZPPvss1x99dV8//vfP7y/nJwcXnvtNQ4dOsSwYcOYOnUq999/PyeddBJXXHFF0p6XiIiI9Ly6un089dQTnHLKaZxyyulex+lVGrFIgsUf7iTSEiMns/33IzmZGURaYiz+0Nvl0Pbt28fKlSs555xzaGpqYu/evezdu5f6+nouuOACampqeP/99wEYPHgwzz//PHPmzDl8kt93v/tdnnrqKXJzc718GiIiItILCgsHcPbZ5zFx4kleR+l1KpCTYNG63eRldd6sz8vKYPF6bwvkbdu2AfDHP/6RM8444xMfd999NwA7duwA4Kc//Smu63L77bdzxhlncP311/PII49w4MABz/KLiIhIz9u8+WPq6vYDMGHCJLKysjxO1Ps0YpEEB5silOR1PjoR8PvYe6g5SYna17p+4fXXX8/06dPb3WbMmDEAnHHGGSxatOjwx+uvv87dd9/NI488wpw5cyguLk5abhEREekdkUiERYsWEgoN5aKLvuB1nKRRgZwEeVkBItEYmRn+DreJRGNH7TL3tvLycgD8fj9Tp079xH2VlZVs376d7OxsmpubWbduHYMHD+bSSy/l0ksvJRaL8fDDD3Pfffcxf/78wytiiIiISPoKBAJcccWXyMsr8DpKUmnEIgnOO2EQB5taOt3mYFML544vS1Kiv2pdt9B1XQYNGsTEiROZO3fuJy4PHYlE+NGPfsS3v/1tWlpa2L9/PzNnzuR3v/vdJ/bzmc985hP79PvjbwhisViyno6IiIj0gA0b1vHBB2sAKC4uJTMz0+NEyaUOchKcO2EwC9bupKG5pd0T9RqaWwhk+Dh3QvIL5NZRiAcffJCzzz6bO++8k5tuuomrr76aa6+9lqKiIubPn897773HD37wAwYMGADAZZddxp/+9CcaGxuZPHky+/fv57HHHqO0tJSLL44v+9K67bx583Bdl6uuuoqMDL3kREREUpnrulRWWiKRCBMmfAbHcbyOlHSqVpKgND/I9y8ez69eWM/eg2HysjII+H1EojEONsWL4+9fPD6pS7y1uvTSS1mwYAFz5sxh5cqVvPDCCzzxxBP85je/4eGHH6alpYWRI0dyzz33cNVVVx1+3F133cWwYcOYP38+8+fPJzs7mzPOOIPvfe97h4vu0aNHc+ONNzJnzhzef/99TjvtNCoqKpL+HEVERKRrXNfFcRwuvPALh7/ujxzXdb3OkEwjgE21tQeJxTp+3lu3buiVC1vUHAiz+MNdLF6/i4NNLeRlZXDu+DLOnVDmSXGcLlavXs0rryxm2rQLqagY4XWcPm3gwHz27NFKJNI5vU6kq/RaSS8ffvg+lZUbuOSSy8nICCT12F69VgYOzG/3HYA6yElUmh/kS6dV8KXT1EUVERGR1OL3+/H7fUD/7Bq3pQJZREREpB9rbGwgOzsHYyYwbtwJ/Xasoi2tYiEiIiLST61f/wGPP/4we/fWAqg4TlCBLCIiItJPlZdXYMwJFBYWeR0lpahAFhEREelnqqq24bou+fn5nHXW+YevXSBxKpBFRERE+pGtWzfzzDOzqay0XkdJWSqQO9DPlr9LWfrvICIi0rOGDRvOeeddyOjR47yOkrJUILfD788gEol4HUOA5uZmFckiIiI9YO3a92hoaMBxHE44YSI+n8rAjugn047MzCD79u3zOoYAtbW11NXVA+A4ermKiIgci/r6OpYvX8Late96HSUtaB3kdhQWllJdvY2cnBzy8vK05EmSua5Lc3MztbW1VFVVU1W1k1gsfiKBiIiIdF9BQSFXX30dxcUlXkdJCyqQ25GZGSQ7u4C1az8gEMhQgewB13Wpq6unqmonu3btpKysTEvQiIiIdIPrurz55uuUlQ1m5MgxlJSUeh0pbahA7kBJySAikSiLF7+SmNfxOtGxy8oK0NSUnjPVrusyZEiIc86ZpjcqIiIi3RCNtlBVtZVIJMLIkWO8jpNWVCB3YvDgIVxzzXXU1e0nHA4D6Xmy2IABuezbd8jrGN3mOD5yc/PIy8vzOoqIiEjacF0X13XJyAhw+eV/Q0aGyr3u0k/sKHw+HwMGFHsd47gMHJhPMHjA6xgiIiLSy1zXZdmyRTQ1NTJt2sUEAgGvI6UlFcgiIiIifYTjOOTl5ePz+TWaeBxUIIuIiIikOdd1aWg4RG5uHpMnT8F1XRXIx0ELy4qIiIikuRUrljJ79uM0NjYCqDg+Tuogi4iIiKQ5Y04kKyubrKwsr6P0CSqQRURERNJQLBZj+/atVFSMoKSkVOsc9yCNWIiIiIikobVr3+W55+awe/cur6P0Oeogi4iIiKShE0/8LLm5eQwaVOZ1lD5HHWQRERGRNBGNRlm1agWRSDN+v5/Ro8d5HalPUoEsIiIikiZ27drBW2+9wZYtm7yO0qdpxEJEREQkTYRCQ7n22q9SVDTA6yh9mjrIIiIiIimspaWFBQvms2NHFYCK4yRQgSwiIiKSwpqbw9TU7GHfvr1eR+k3NGIhIiIikoKi0RZ8Pj85Oblcc80NZGSobEsWdZBFREREUkw02sL8+U+zfPlSABXHSaYCWURERCTF+Hx+iotLKSkZ6HWUfklvR0RERERSRHNzMy0tEXJycvn858/1Ok6/pQ6yiIiISIpYsOA55s17klgs5nWUfk0dZBEREZEU8bnPnUpDQwM+n3qYXlKBLCIiIuKhcLiJXbt2UlExglBoqNdxBI1YiIiIiHjqzTdf58UX59HQ0OB1FElQB1lERETEQ6effhajR48jJyfH6yiSoA6yiIiISJI1NTWyYsVrRKNRMjMzKS8f5nUkaUMFsoiIiEiSbdmyiTVr3qa2tsbrKNIOjViIiIiIJJkxEwiFhpGfn+91FGmHOsgiIiIiSdDQcIhnnpnN3r21ACqOU5gKZBEREZEkaG5u5uDBAzQ1NXodRY5CIxYiIiIivSgSiRAIBCgqGsC1135VFwFJA/ovJCIiItJLGhoO8Ze//JE1a94GUHGcJvRfSURERKSXZGVlEwoNZdCgwV5HkW7QiIWIiIhIDztwoJ7MzCDBYJDzzrvQ6zjSTeogi4iIiPSgaDTKM8/M5uWXn/c6ihwjdZBFREREepDf72fq1HPIzy/wOoocIxXIIiIiIj1g//59HDp0kPLyYYwaNcbrOHIcNGIhIiIi0gOWLn2VV199iWg06nUUOU7qIIuIiIj0gOnTZ9DU1ITf7/c6ihwndZBFREREjlFtbQ1vvLEM13XJycmluLjE60jSA1Qgi4iIiByjTZsqWb/+AxoaDnkdRXqQRixERNKAGw5DdRWEynGCQa/jiPR7ruviOA4nn3waEyZMIicnx+tI0oPUQRYRSXFuOEzLHbcSufM2Wu64NV4si4hn9uzZxVNPPcHBgwdwHEfFcR+kAllEJNVVV+HuqMYpKcWtro53kkXEM7FYjJaWFmKxmNdRpJdoxEJEJNWFynGGhHCrq3FCIQiVe51IpF8Kh5sIBrMoKxvCzJk34jiO15Gkl6hAFhFJcU4wSMasezWDLOKhmpo9PPPMXzj33AsZPXqsiuM+TgWyiEgacIJBGDnK6xgi/VZhYREjR46hrGyw11EkCTSDLCIiItKBmprdRKMtBAIBzj//IvLy8r2OJEmgAllERESkHQ0Nh5g798+sWPGa11EkyTRiISIiItKOnJxczjlnOkOHVngdRZJMBbKIiIhIG9u2bSE7O4fS0oGMG3eC13HEAxqxEBEREUmIRqMsXfoKy5cv8TqKeEgdZBEREZEEv9/PF77wRYJaTrFfUwdZRERE+r3Nmz/m7bdXAvEl3bKysj1OJF5SgSwiIiL93saNlWzc+BHRaIvXUSQFaMRCRERE+i3XdXEch3PPvYCWlhb8fpVGog6yiIiI9FOVla/lJcUAACAASURBVBuYM+d/CYeb8Pl8ZGZmeh1JUoQKZBEREemXMjIyCAQCOI7KIfkk/R1BRERE+pWGhgZycnIYMWIUw4ePxHEcryNJitFbJhEREek3Nm2q5LHHHmTnzmoAFcfSLhXIIiIi0m8MGVLO+PEnUlIy0OsoksJUIIuIiEifV1W1Ddd1ycrK5uyzpxEIBLyOJClMBbKIiIj0abt37+SZZ2azdu27XkeRNKGT9ERERKRPGziwjGnTZjBmzDivo0iaUAdZRERE+qQPP3yf+vo6HMfBmAm6CIh0mQpkERER6XMaGxtZsWIp77232usokob0VkpERET6nOzsbL74xWspKCj0OoqkIXWQRUREpM94++2VrFu3FoABA4rx+/0eJ5J0pAJZRERE+oRYLEZV1bbDS7qJHCuNWIiIiEhac12XWCyG3+/n4ouvwOfz6Qp5clzUQRYREZG0tmrVCp5//mmi0RYyMjLw+VTeyPFRB1lERETSWn5+AQ0Nh/D5NG8sPUMFsoiIiKQd13U5ePAg+fn5nHDCRE44YaLXkaQP0d8gREREJO28/fYq/vKXRzlwoN7rKNIHqYMsIiIiaWfsWEMsFiUvL9/rKNIHqYMsIiIiacF1XTZv3ojruhQUFDJlyhlarUJ6hQpkERERSQsffbSe559/mm3btngdRfo4jViIiIhIWhg7djx+v59hw4Z7HUX6OHWQRUREJGW5rstbb71BU1MjjuMwevQ4jVVIr1OBLCIiIimrtraG1avfpLJyg9dRpB/RiIWIiIikrNLSgXz5yzdRWFjkdRTpR9RBFhERkZQSi8V45ZUX2bx5I4CKY0k6FcgiIiKSUlpaIuzdW8u+fXu9jiL9lEYsREREJCVEo1EcxyEzM8gXvzgTv19linhDHWQRERHxXCwWY8GC53j11ZdwXVfFsXhKrz4RERHxnM/nY+DAwWRmZmoZN/GcCmQRERHxTEtLC42NDeTnF3DKKad5HUcE0IiFiIiIeGjRogXMnftnIpGI11FEDlMHWURERDwzefIUhg0bTiAQ8DqKyGHqIIuIiEhSRSIRNm6sBOIXAhk//kSPE4l8kgpkERERSap33lnFSy89S13dPq+jiLRLIxYiIiKSVCeffCqh0FAKCwd4HUWkXZ4UyMaYvwe+A4wCdgJ/AO6x1oY7ecwA4B7gcqAAWAX80Fq7svcTi4iIyPFobm5m1aoVnHrqVAKBAEOHVngdSaRDSR+xMMbcAjwAPA9cBvwauAX4fSeP8QHPAVcAtwPXAZnAq8YY09uZRURE5Pjs2LGdtWvfZdeuHV5HETmqpHaQjTGZxAvcP1lrf5i4+RVjTDHwY2PMzdbane089IvAVOBca+2SxL4WAh8BPwZu6P30IiIi0l2u6+I4DsOHj+L66/+WvLx8ryOJHFWyO8gtwNnEi+S2mgGHeFe4PZcAu1uLYwBrbQPwLHCZMUaX3BEREUkxjY2NzJv35OGusYpjSRdJ7SBba2PA2tbvjTFFwEXERyzmWWu3dvDQCcCGdm7/iPg8cgio6tm0Iv2P29SEu2kjhMpxgkGv44hImotEIjQ0NNDY2Oh1FJFu8WwVC2PMFKD1BLvNwM2dbF4EVLZze33icwEqkEWOixsOs/eOW4hs3oIzJETGrHtVJIvIMYlEmsnICFBQUMDMmTfi82lVWUkvXi7zth04DygjPke80hhzprX2w3a29QFuJ/vq7L5PKSnJ687mfcLAgfqzlnQuUrmLfdu3kzVkMNE9uxjQtJ/A0DFex5IUpd8p0pFwOMxDDz2GMYbzzz+fsrJCryNJmkil3yueFcjW2h3ADgBjzBLiXeTvAX/fzub7iXeJj1TQ5v4uq609SCzWrZo6rQ0cmM+ePQe8jiEpzs0qwj90KE2btuCEQuzLKsLR60baod8p0hnXdRkyZChFRYMA9FqRLvHq90pHRXmyV7EoIX7C3TJr7abW2621O40xVcCwDh66Hpjezu1jgb3Arp7OKtLfOMEgxf/x7+xZYzWDLCLd1tBwCHDIycnhzDPP9TqOyHFJ9lCQn/hFQW5pe6MxZjwwAni3g8e9AAwxxny+zWNyiK+j/KK1tv+0g0V6kZOVhTNylIpjEekW13WZP38uL7zwNK6r/yVL+kv2Kha7jTG/Br5jjKkDFgKjgZ8AW4FfABhjJie2fyfx0CeBW4G5xpjbgT3AD4mPWPxLMp+DiIiIfJLjOEydejaO48NxtPKqpD8vTiu9Gfgn4AvAfOAu4CXgdGttTWKbuYkPAKy1EeBC4EXgPuAx4msnT7fWrktedBEREWl14MABtmzZCEB5eQWh0FCPE4n0jKSfpGetjQK/TXx0tM2Idm7bDdzYe8lERESkO954Yynbtm3lhhu+RmZmR9f6Ekk/Xi7zJiIiImns7LOnc+BAnYpj6XO0creIiIh0WV3dfpYtW0QsFiMYDFJaOsjrSCI9TgWyiIiIdNn27VvZsGEdBw7UeR1FpNdoxEJERESOynVdHMfhxBMnMWrUGLKzc7yOJNJr1EEWERGRTu3bt5cnn3ycffv2Aqg4lj5PBbKIiIh0ynVdYrEYrhvzOopIUmjEQkRERNrV1NRIVlY2xcUlXHPNjboIiPQb6iCLiKQQNxzG3bQRNxz2Oor0c3V1+3niiUf48MM1ACqOpV9RB1lEJEW44TAtd9yKu6MaZ0iIjFn34gSDXseSfiovL59Ro8YRCg3zOopI0qmDLCKSKqqr4sVxSSludTVUV3mdSPqh2toampub8fv9nHPONIqKBngdSSTpVCCLiByHHh2JCJXjDAnh1tTghEIQKj/+fYp0Q3NzM/PmzWbJkpe9jiLiKY1YiIgco54eiXCCQTJm3RvvHIfKNV4hSZeZmcm5516gq+NJv6cOsojIseqFkQgnGMQZOUrFsSTVzp3VVFdvB2DkyDHk5xd4nEjEWyqQRUSOlUYipA9wXZdlyxazbNliXNf1Oo5IStCIhYjIMdJIhPQFjuNw8cWXH76UtIiogywiclw0EiHpqqpqKytWLMV1XXJz88jLy/c6kkjKUIEsIiLSD23duoXNmzfR3NzsdRSRlKMRCxERkX4kFovh8/k4/fTPc/LJp5KZqb9+iBxJHWQRkTSiS1HL8di6dROzZz/OoUMHcRxHxbFIB9RBFhFJE7oUtRyvQCCTYDATv9/vdRSRlKYOsohIutClqOUYNTQcAmDIkHKuuOIasrKyPU4kktpUIIuIpAutuyzHoKpqK3/844Ns3boJQEu5iXSBRixERNKE1l2WYzFo0GAmTPgMZWUhr6OIpA11kEVE0ojWXZauqq7eTjQaJRDI5Kyzzieo14xIl6lAFhER6WPq6vbxzDOzWb36Ta+jiKQljViIiIj0MYWFA7jwwkupqBjhdRSRtKQOsoiISB+xYcM6amtrABg9ehyBQKbHiUTSkwpkERGRPiASibBixWu8/fZKr6OIpD2NWIiIiPQBgUCAq66aSU5OjtdRRNKeOsgiIiJpbO3a93jnnVUAFBQUkpER8DiRSPpTgSwiIpKmXNdlx47t7NhRRSwW8zqOSJ+hEQsREZE0FI1G8fv9TJt2Ma7r4vOp5yXSU/SvSUREJM28995qnn76zzQ3N+Pz+fD7/V5HEulTVCCLiIikmYKCQgoKilQYi/QSjViIiIikiQMH6snPL2DkyDGMHDnG6zgifZY6yCIiImnggw/W8MQTj1Bbu8frKCJ9njrIIiIiaWDUqDEcOnSAAQNKvI4i0uepgywiIpKiXNdl06aPcV2X7OwcTj31TK1WIZIE+lcmIiKSorZt28ILLzxDZaX1OopIv6IRCxERkRQ1bNhwZsy4TCfkiSSZOsgiIiIpxHVdVq9+kwMHDuA4DqNGjcVxHK9jifQrKpBFRERSyIED9bzzziqs/dDrKCL9lkYsREREUkhBQSHXXHMj+fkFXkcR6bfUQRYREfGY67osXfrK4a5xQUGhxipEPKQOsoiIiMei0Sj79u0lMzPodRQRQQWyiIiIZ2KxGK4bIyMjgy984Yta41gkRehfooiIiAdc12Xx4oW8+OKzxGIx/H6/xipEUoQ6yCIiIh5wHIeysiE0NjaocyySYlQgi4iIJFEsFuPAgToKCwdw4omTvI4jIu3QW1YREZEkev31JTz11BM0NjZ6HUVEOqAOsoiISBJNmjSZ4uISsrOzvY4iIh1QB1lEJI244TDupo244bDXUaQbotEolZUWgMLCIo1WiKQ4dZBFRNKEGw7TcsetuDuqcYaEyJh1L05Q6+amgw8+WMOyZYsoKChk0KDBXscRkaNQgSwiki6qq+LFcUkpbnU1VFfByFFep5IumDjxswwYUKziWCRNaMRCRCRdhMpxhoRwa2pwQiEIlXudSDrR0hJh2bLFNDU14fP5GDZsuNeRRKSL1EEWEelEzHWp3H2QnXVhBhcGGTMoD59HF3NwgkEyZt0b7xyHyjVekeJqavbwwQfvEQqVM2rUWK/jiEg3qEAWEelAzHX5w/ItrNleR8wFnwOThhZy09ThnhbJGqtIba7r4jgOgweHuOGGr5Gbm+d1JBHpJo1YiIh0oHL3QdZsr6MoJ0BJXiZFOQHWbK+jcvdBr6NJiopEmnnuuTls3boZQMWxSJpSgSwi0oGddWFibvySwBD/HHNhV72WWJP2RaNRmpqaCIebvI4iIsdBIxYiIh0YXBjE5/z1T+au6+JzoKxAs7/ySZFIBL/fT1ZWNldffS0+n/pPIulM/4JFRDowZlAek4YWsr8hQu3BZvY3RJg0tJAxg/Rnc/mraLSFefOeZOnSVwFUHIv0Aeogi4h0wOc43DR1OJW7D7KrPkxZgberWEhq8vszqKgYQUlJqddRRKSHqEAWEemEz3EYV5bPuLJ8r6NIimlqaqS5uZmCgkKmTDnD6zgi0oP0dyAREZFjsGDBfJ57bg7RaNTrKCLSw9RBFhEROQZnnHEWjY0N+P1+r6OISA9TgSwiItJFDQ0NVFdvZ8yYcQwcWOZ1HBHpJRqxEBER6aLVq9/g1VdfoqHhkNdRRKQXqYMsIiLSRWeccTbGTCAnJ9frKCLSi9RBFhER6cShQwdZvPhlWloiZGRkMGjQYK8jiUgvU4EsIiLSiZ07q6msXM/+/fu8jiIiSaIRCxGRPsYNh6G6CkLlOEFdFvtYtV5ifPTocZSXDyMrK9vrSCKSJOogi4j0IW44TMsdtxK58zZa7rg1XixLtx04UM/s2Y+ze/dOABXHIv2MCmQRkb6kugp3RzVOSSludXW8kyzHzHW9TiAiXtCIhYhIXxIqxxkSwq2uxgmFIFTudaK00tTUSDCYRX5+AX/zN9fjOI7XkUTEAyqQRUT6ECcYJGPWvZpBPgYNDYeYPftxJk48iZNPPlXFsUg/pgJZRKSPcYJBGDnK6xhpJzs7h7FjDcOHj/Q6ioh4TAWyiIj0a/v27SUrK4vs7BymTj3H6zgikgJ0kp6IiPRb0WiU556bw8svv+B1FBFJIeogi8hRaV1d6av8fj/nnXchubl5XkcRkRSiAllEOtW6rq67oxpnSIiMWfeqSJa0V1Ozh4MHDzBixCiGDq3wOo6IpBiNWIhI57SurvRBb7zxGsuWLSIajXodRURSkDrIItI5rasrfdAFF1xCOBzG7/d7HUVEUpAKZBHplNbVlb5i166drF+/lrPOOp9gMItgMMvrSCKSojRiISJH5QSDOCNHqTiWtLZjRxXbtm2hqanR6ygikuLUQRYRkT4tFovh8/k46aSTmTBhIpmZeqMnIp1TB1lERPqsHTuq+N//fZS6un0AKo5FpEtUIIuIHAc3HMbdtDG+VnQa7bu/yMzMJDs7m4yMgNdRRCSNaMRCROQY9eYa0Vp/+vgcOnSQ3Nw8SkoGcuWV1+A4jteRRCSNqIMsInKsenONaK0/fcz27NnF448/xIYN6wBUHItIt6lAFhE5Vq1rRNfU9Pwa0b257z6uuLiUE0/8LMOGDfc6ioikKY1YiIgco95cI1rrT3ffjh1VlJYOIhAIcOaZ53gdR0TSmDrIIiLHoTfXiNb6013X0HCIZ599ihUrlnodRUT6AHWQRUQk7eXk5HLhhV9g8OCQ11FEpA9QB1lERNLWxo2V7NhRDcCIEaPIytLlo0Xk+KlAFhGRtBSLxXjzzdd5660VXkcRkT5GIxYiIpKWfD4fl19+NYGALgIiIj1LHWQREUkrGzasY8WKpbiuS25uni4fLSI9TgWyiIikld27d7Jr105isajXUUSkj9KIhYiIpIVoNIrf7+fMM89NfK3/hYlI71AHWUREUt66dWuZPfsxGhsbcByHjAwVxyLSe1Qgi4hIyisoKKSoqFgn5IlIUugtuIiIpKz6+joKCgopLx9Gefkwr+OISD/R5QLZGJML/By4Esjl091n11pb0oPZRESkH6us3MDLLz/P5Zd/iVBoqNdxRKQf6U4H+d+BvwWWANuAWK8kEhERASoqRjB58hTKyoZ4HUVE+pnuFMhXAj+x1s7qrTAiIn1dzHWp3H2QnXVhBhcGGTMoD5/jeB0rpWza9DEVFSPIzMzktNPO9DqOiPRD3SmQc4BlvRVERKSvi7kuf1i+hTXb64i54HNg0tBCbpo6XEVywu7du3jhhWf4/OfPY9KkyV7HEZF+qjurWCwHpvZWEBGRvq5y90HWbK+jKCdASV4mRTkB1myvo3L3Qa+jpYxBg8q45JIrmTjxs15HEZF+rDsd5NuBucaYCPA6cOjIDay1a3oqmIhIX7OzLkzMBSfRLXYch5gLu+rDjCvL9zidt959dzUVFSMoLi5hxIhRXscRkX6uOwXyysTn+wD3iPucxG3+ngglItKWGw5DdRWEynGCQa/jHLPBhUF8Driui+M4uK6Lz4GygvR9Tj2hsbGRd95ZxaFDBznzzHO8jiMi0q0C+W/5dGEsItKr3HCYljtuxd1RjTMkRMase9O2SB4zKI9JQws/NYM8ZlCe19E8lZ2dzZe+dD25ubleRxERAbpRIFtrH+nFHCIi7auuihfHJaW41dXxTvLI9PwTvM9xuGnqcCp3H2RXfZiygv67ioXrurzxxjJycnL47GdPJj+/f4+YiEhq6daV9IwxxcDNwPlAEVADLAb+zVpb2+PpRERC5ThDQrjV1TihEITKvU50XHyOw7iy/H4/c+y6LvX1+2lubj48ciIikiq6cyW9MmAFUAGsBTYBIeIn791ojJlird3dKylFpN9ygkEyZt3bJ2aQJV4YR6MtZGQEuOCCS3EcR8WxiKSc7nSQfw5kA6dYa99tvdEYcxIwH7gL+HrPxhMRiRfJxztWoQt0pIbly5eya9cOLr/8ajIyAl7HERFpV3cK5EuBH7ctjgGste8aY34K/LQHc4mI9BhdoCN1DB48BMdx8Pu7NeEnIpJU3fkNlUd8rKI9m4GS404jItIL2l6go3V5tdYLdPT3WeBkcF2X/fv3MWBAMaNHj2P06HFeRxIR6VR3rqRngUs6uO8SYOPxxxER6XmdXaBDet9bb73B7NmPU19f53UUEZEu6U4H+bfA/xhjWoDHgR3AEOAG4J+AW3o+nojI8dMFOrx14omTCAaD5OcXeB1FRKRLulMgPwxMAX6Q+GjlAP9jrf23ngwmItJTdIGO5IvFYnz00XrGjTuBnJxcJk36nNeRRES6rDsXCnGB/2uM+TVwHjAA2AssstbaXsonInLcdIGO5Pv44w288sqLZGfnUFExwus4IiLd0u3TiK2164H1vZBFRKTX6AIdyTVmjCE7O4ehQyu8jiIi0m2dFsjGmDnAD621lYmvO+Naa6/uuWgiIpJOotEob7zxGieddAq5uXkqjkUkbR2tgzwZyE18/TnA7d04IiKSrurq9vPhh2spLi7lhBMmeh1HROSYdVogW2tHtvl6RK+nERGRtNO6OkhxcQnXX/9/yMnJPfqDRERSWJdnkI0xDwF3WWs/dbEQY4wBfmGtvayL+7oJ+DYwDqgHlgO3W2srO3nMLcB97dy1xFp7bleOKyIiPSsabWHBgvmMGWMYO3a8imMR6ROONoPcdoDsq8DTxphoO5teAlzQlQMaY74H/Ar4b+B24lfg+wnwljFmcnsFeMLngDXA14+4vb4rxxWR9OWGw7ib478anBEjcYJavzhVxGIu4XCYcFgXXRGRvuNoHeTfARcmvnaBuR1s5wBLjnYwY4wD3An82Vr7jTa3LyN+uepv8ck1ltv6HLDYWvvG0Y4jIn2HGw4Tue1mWL0KXHCmnErG3f+qItljLS0RHMdHIBDg8su/hM/XnQuzioiktqMVyN8ALideAP8K+HdgyxHbRIF9wPwuHK+Q+FX4nmt7o7V2mzGmHihv70HGmDxgTOL4ItKfVFfBtq0Qi58j7G7dEr9t5CiPgx2dGw7Hs4bKe7yg7819H/XYrsvzz88jEAgwY8ZlKo5FpM852kl6m4BfAxhjColfMa/6WA9mrd1PfPb4E4wx04Ei4L0OHjoZ8AFTEyMaI4HtwH8Cv0pcxERE+qJQOQyrgF27AHAqhsdvS3FuOEzLHbfi7qjGGRIiY9a9PVbI9ua+u8JxHEaOHE0gEMDRxVZEpA/qzpX0ftbRfcaYXOAca+3z3Q1gjAkBDwK7iI90tKf1GqUjge8DYeBLwC+AEB2PZbSrpKT/XV524EBdHEG6JvVeK/m4D95P5OONgEtg9GicrCyvQx1VpHIX+/bswj9kMNE9uxjQtJ/A0DEpv+/ONDc3U19fD+Rz/vln9frxpG9Ivd8pkqpS6bXSnVUsyokXsOcDHbUq/N05uDFmDPAiUAxcZK3d28Gmc4CNwAJrbeuZIAuNMZnAd4wxv7DW7ujqcWtrDxKL9Z+m88CB+ezZc8DrGJIGUvq1MmhY/POBSPwjxblZRbQMLCNSXY0TCrEvqwinh362vbnvzixYMJ/q6u185zvfpq5OJ+XJ0aX07xRJKV69VjoqyrtzqelfEi+OZwMnAweJj0RMA0YAX+5OoMRYxZ+JzzBfYK19s6NtrbXbgG3t3DWP+Ooak4AuF8giIr3NCQbJmHVvr8wJ9+a+Y8uXEZ3zJBnf/DbOEXPep546lb17a8jMzCT+hzwRkb6pO2dWnA/8xFp7E/B7oNZa+3VgIrAaOKerOzLG/B3wAvGxitM7K44T288wxlzXzl2tf2fd09Vji4gkixMM4owc1Svzwb2x79iiV2j59jdwX15AbMkiAMLhMOvXfwBAUdEARo0a22PHExFJVd0pkIuAVYmv1xE/cQ5rbRPxE/lmdGUnxpgbgQeAZcBUa+3GLjzsi8AfjliXGeB6YCfwYVeOLSKpyQ2HcTdtjK/M0AeOk45iSxfTcsv3oKUFZ+w4fFddDcCaNW+zePFC6ur2eZxQRCR5ujNiUUN8mTaAj4EyY0xxYm54O/GT5TpljCkjfoGQWuBfgPHxi/Adttdau8EYMwEoaLPm8b8CM4EXjTE/Aw4QH624BLg+UaSLSBpK1ooMXq/8kMpir79Gyw++Ey+OR48h43cP4RQWAXDyyadRUTGCwsIBHqcUEUme7nSQlwA3G2MGEi+Q6/nr3PE0oKMT7Nq6FMgFSoGXgRVHfLReSvq/Et8DYK39CJgKWOA/gKeACuBKa+0T3XgOIpJqqqviRWtJKW51dXyuNp2Pk2Ziy1+n5Xv/BJEIjBpFxgMPEc7J5tVXXyIcDuPz+SgrG9Ll/UWiMVy3/5wELSJ9U3c6yD8FlgNPWWvPNsb8BviNMeYHxE/S+/XRdmCtfQh4qAvbndvObR8AV3Ujr4ikg1A5zpAQbmJFhl5b4zhZx0kjsTeW0/K9b0FzM4wYSeCBh3FKSqnZvpWNGz9i/PgTCYWGdnl/Kzft5Vcvf8TEUCF3Xjq+F5OLiPSu7qyDbI0x44HPJr7/iTHmEHA28AhwT68kFJE+rTdXZPDiOOkitupNWr77LQiHoWI4gQcehpJSAIYOreCGG75GVlZ2l/f36vrd/PqVSmIuHAy39FZsEZGk6M46yGdZa18jPhoBgLX2XuDe3ggmIv2HEwwm5dLRyTpOqoutfouWf/oGNDXBsGEE/ucRGvNymf/knzjjjLMYOrSiW8XxvPeq+Z/XNgMwqjSXW2eM66XkIiLJ0Z0RiyXGmI3Aw8CjibWJRUQkjfx/9u47PI7qevj4d2aLula9W7JsySMXbIppBmK6qQZTEuCFUAKEEggpEKqNTQktCSGFAAkEkkD4JSRgOiGUAKZjbNzGlotsSVa11aVtc98/1pJVVtKuuuTzeR4/xrtT7oz2WY7unHuOtfJLfD/4PrS1QnZOIK0iPR2ttRVd18NqHa2U4m+f7uD5L0oBmJkVzx2nFhETEc7/WoQQYuwJ51tsEXARcDuw1DCMdwkEy/+SKhJCCDH2Wau+xnft96G1FTKzcDzxFO7ERCKUIioqirPOOi/kANlvKR773xZeX1MJwKH5idy4YBoR9rAaqgohxJgUchUL0zRfMk3zHCATuJZAk46/AhWGYTxmGMbhwzRGIYQYFROpbrL1zSp811wBLS2QkYHjj3/Gk5zCCy88x4oV7wOEHBx7fRYPvbWxIzg+tiiVW04ukuBYCDFhhP0czDTNOuAx4DHDMCYDNxAImC8H5NtRCDEhTKS6ydbaNfiuvgKamyEtHccTf0bLzsGpFNOmTWfSpLyQj9Xq8XP3s1/x6eZaAM7cP5NLj5iMHkZqhhBCjHUDShTbUwv5POB84FACjT/+NoTjEkKI0RWsbvI4XOBnrV+H76rLoakJUtNwPPEUjS4XWmMDcXHxHHxw6A//Gtu8LH15PWZlEwAXHZbLuQdlh5W3LIQQ40E4VSyiCeQh/z/g+D0vvwGcA7xsmqbU9RFCTBwToG6ytWE9vu9fBo0NkJKC44mnIDePN/7xVzRN55xzLgg5uK1tcnPH8nXs2NWKpsE186dw0qyMYb4CIYQYHeHMIFcB0cA64FbgL6ZpVg7LqIQQYpSN97rJ2lpNwwAAIABJREFU1kYT31Xfg4YGSE4OVKuYnA/A/PknoOtayMFxeV0rd7y0jqpGN3ZdY9k5s9kvLWYYRy+EEKMrnAD5WeCPpml+NlyDEUKIsWS81k22ijcFZo7r6iAxCftjT1KflET1pg0UFhaRnh76zO/m6iaWLF9HfauPSIfOrScXcezMDKqrG4fxCoQQYnSFXMUCOA4oHK6BCCGEGDy1uRjflZfB7t2QmIj98SfRCwr54otP+PDD9/B4PCEf65uyem7991rqW33ERdi558yZHJCbMIyjF0KIsSGcGeQEoGK4BiKEGB2WUhRXNVFR72a6xyLZoUlFgnFKbd2C98pLYVctuFzY//An9MJAV7v584+nubkJp9MZ0rE+3bqL+98w8foVKbFOli2cwaSk6OEcvhBCjBnhBMh/BO4xDGMXsM40zfFfGFSIfZylFE+vKGF1aT2Wgog1FUxPj+XieXkSJI8zqmRbIDiurYX4eOyP/Ym61BS+evt1jj76BBwOBwkJiSEd67/rq3jknWIsBdkJkSw7YyZpceMrB1sIIQYjnAD5W8CBwBeAMgyjodv7yjTN5CEbmRBi2BVXNbG6tJ6EaAeapuFw2FhdWk9xVRPT0uNGe3giRGrHdrxXXArV1RAbF5g5LppB1YZ1lJVtp6Wlmfh4V0jHenFlOX/6aBsAU1NjWLpwBq4oxzCOXgghxp5wAuQNe/4IISaIino3ltrbQU3TNCwFlQ1uCZDHCVW6A+/ll0BVJcTGYv/DH6FoOgBFRTOYOrUAh6P/tAqlFH/5ZDv/+LIMgNnZ8dx2ahHRzgGVyxdCiHEt5G8+0zQvHc6BCCFGXoYrAl0LBEeapqGUQtcgPX7gj9OV2z1uS6ONN6qsDO8Vl0BlBcTEYP/9E+zKSOfN5/7MggWnkZKSFlJw7LcUj763hTfXBSp3HjYliRtPnIbTHs46biGEmDjCnhowDCOTQKOQbODPQAaw1jRN79AOTQgx3ArSYpmd4+rIQXY6bMzOcVGQFjug402k9sxjndpZHgiOd+6E6Gjsv3scffYcnA31REfHhBQYA3j9Fg+9tZEVm3cBcML0NK49Zio2XXLQhRD7rrACZMMwlgI3Aw5AAW8B9wAZhmEca5rm7qEfohBiuOiaxsXz8iiuaqKywU1RXtLgqlhMkPbMY52qrAjkHJeXQWQU9t/+gZaCAmKB+HgXZ5757ZCagLR4/Nz72gZWldYDcNYBWVwyL09aRwsh9nkhPz8zDONq4HbgQeAwoP0b9LdAPrBkyEcnhBh2uqYxLT2OowpTmJHtGlz1iqxsSEtHlZVBevq4bM881qnKykDOcekOiIzE/ptHaZgylb///WlWr14JEFKAW9/q5fYX13YEx5fMy+PSIyZLcCyEEITXKOQ64Bemad4OfNn+ommarwKLgTOGeGxCiHFI0zTQQgvSRHhUdXWglNuO7RARgf2R36MffAguVwKzZu1Pfn5BSMepbnRz87/WsKmqCV2D646dytkHyi8zQgjRLpwUiykEUiqCWQVkDn44QohxrbwMVVmBlpWNqqgYshSLzs1MMlwRFKTF7nN1mlVtTSA4LtkGTif2h39HdV4errZWIiOjOOywI0M6TunuVu54aS01TR7susaNC6Yxb6pU6BRCiM7CCZCrgOnA20HeM/a8L4TYl2Vlo2VmocrL0bKyhiTFonszE12D2TmufaqZidpVi++KS2HrFnA4sP/qN/gOmsurf/0jOTl5nHjiqSEdp7iqiSXL19HQ5iPKoXPbqdOZkxNafWQhhNiXhBMg/xNYahjGJvYGycowDAO4DXhxqAcnhBhftIgI7PfcP6Rl3ro3M1FK7VPNTNTu3fiuvAy1ZTPY7dh/+Qj6EUfhBE488TSSkkKb/V1dWs/dr66n1WsRF2ln6ekzKEwfWLUSIYSY6MLJQV4MbAReBer2vPYKsAaoB+4Y2qEJIcYjLSICLX/KkJV366uZyXik3G7U1i2BetH9bVtXh+/7l6GKNwWC41/8mrLJkykp2QJATk4u0dEx/R5nxeZalixfR6vXIiXWyf1nz5LgWAgh+hBOo5AmwzCOAi4ETgBSCATK7wJPmabZNjxDFELsy4ajmcloCadOtKrfExxvNAPB8QO/RPvW0Xz+7+exLIvc3PyQFkK+ta6S3727GUtBTmIUyxbOIDVu/N07IYQYSWHVQd7TDOSpPX+EEGLYdW9m0p6DPNBmJqMqxDrRqqEB39VXoMwNYLNhv+8h9GOPB+CUUwIFg0IJjv/1VRlPrSgBoDAtliWnT8cV5RjCCxJCiIkp3EYhC4BW0zT/ZxjGVAKd9PKA54BbTNO0hn6IQoh9WfdmJunx47iKRQiLGFVjI75rrkCtWws2G7Z7H2B7QQHb3vsP3/rWcURGRvV7GqUUf15Rwr9WlgMwJ8fFracUEe20DfklCSHERBRygGwYxsXAk8Avgf8BvwcOAP4D3EAg3eLnwzBGIcQ+rr2ZyXhflNffIkbV1ITv2itRa74BXcd2933YFpxMzRefUl1dhc/nw+nsu4W031L87r3N/GddoLDQvKlJ/PTEaThs4Sw5EUKIfVs435jXA88CNxmGkQYcB9xtmuYiAgv0Lhn64QkhxOiylGJjZSP/21jDxspGLKUGdbzeFjGq5mZ8134ftXoVaBq2u+6FExcAMHfuoSxa9J1+g2OPz+L+N8yO4PjEGWnctMCQ4FgIIcIUzrdmEfCkaZoKOIlAq+mX97z3KZA7xGMTYtzqq1KB1dCA9cH7WA0NozAyEY72GsyPvreFF74q49H3tvD0ipJBB8ndqZZmfNddhVq1MhAcL72HkunTee65p2lsDHxO7Pa+H/i1eHwsfXkdH2/ZBcC5B2Xzg2OmYtPHYSqKEEKMsnBykFuB9imPE4Bq0zTX7vl3JrB7KAcmxHjVV6UCq6EB3zlnQEM9xLuw//Ml9Pj4UR6x6M1I1GBWra34rr8W9dWXANiWLMO28Ezia6pISkomIiKy32PUt3q5c/k6iqubAbjsiDwWHSCto4UQYqDCmUH+FLjRMIwLgLMJ1EDGMIw5BFIsPhr64QkxDgWrVNBu1cpAcBwdE/h71crRG+c4E0794KEy2BrM/Y1Ztbbi++E1qC8+A8B2x1KajjkOgOQ4FydPn42jn9nqqkY3P3vhG4qrm9E1+OFxBRIcCyHEIIUzg3wzgQV5fwUqgbv3vP4W4AFuH9qhCTFO9VWpYM4BEO/qmEFmzgGjN85xJJz6wUNpMDWY+xuzcrvx/eg61GefAmC7bTHlhxzCK88+xYLjTmbS43/o93p37Gph8fJ11DR5cNg0blpgcNiUpKG7AUIIsY8Kp1HIN4ZhFALTgTWmabbseetC4FPTNCWhUgj6rlSgx8dj/+dLgZnjOQdIekWoQqwfPNQGVYO5jzErtxvfj69DfbICANvNt2E79zyy/D4OOuhQcnS93+vdWNnInS+vp7HNR5TDxh2nFrFfjmvI74EQQuyLwm0U0gh8ZhhGkWEYiUCVaZr/GZ6hCTF+aRERvQZwenw8HDV/hEc0zmVlo6VnoLaXoOXmBa0fPBwGVYO5lycJyuPB99MbUB99CIDtxlvYcdjhZHu9OBwODjlkXiCA7qNe8tc76rjntQ20eS1cUXbuPH3G+GycIoQQY1S4jUIuJJBaManTayXAjaZpvjDEYxNCiA5qTy6uGuIKEv0ZaA3mYE8SlNeD76YfoT54HwDbT26i6bTTef3ZpzjooEM55JB5ve7b7qPiGh56axM+S5Ea5+SuhTPJTuy/eYgQQojQhbxIzzCMy4BngG0EGoNcAPwYqAKeNwzj9OEYoBBCUF4GVZVoWdlQWdl14eMY1rnmsfJ68d30E9R77wJgu+En2C66BJcrgVNPXcSBBx7S677t3lxbyf1vbMRnKSYlRfHA2ftJcCyEEMMgnBnknwB/MU3z4m6v/9owjH8Ay9hbF1kIIYZOCC2ag1Fud69d60aS8nrx3XIj6t3/AmC77gbWz51LauVO0tMzyc2d3Pf+SvHPr8p45uPtABjpsSw+bTrxUY7hHroQQuyTwgmQpxKYOQ7mCeClwQ9HCCF66q9FczCjVfmixzh8Pvy3/Qz19lsA2K65Duu7l/L188+QmZlNenpmn/tbSvHUR9t48eudAOw/ycWtJxcR5bQN+9iFEGJfFU6AvAGYTaDUW3eTgK1DMiIhhAiir4WPQY1S5YvOlM+H//ZbsN56AwD9yquxXXk1NmDRou8QGdl3eoTfUjzyTjHvbKgG4MiCZH58QqG0jhZCiGHWZ4BsGEbnGlTLgKcMw6gDnjdNs8kwDCdw+p73Lh++YQohxrsRT3cYYFrGUFF+P77bb0G98SoA+veuZPVhh+L++AMOO+xIYmL6rjrh9vl58M2NfLo10KT0pJnpXDV/irSOFkKIEdDfDHId0HnJuEYgneJxwzBagfbpDwt4HpCirkLswyylKK5qoqLeTYZrb0m00Uh3GEhaxmB1XP/uVmY9cT+x/3098EbeZLTLv0/Dpx/h9bo7Go/0ptnt4+5XN7CmPFBe/ttzc7jw0El97iOEEGLo9BcgL6NrgCyEEEFZSvH0ipIeTTUunpeHNkrpDmGnZQxC+/V/s2M3i177I7GrA9UqVM4kfLFxOCp2Mn/+cYFufHrvKRJ1LR6WvLyeLdXNAFx+5GTO2D9rRK5BCCFEQJ8Bsmmad7b/t2EYecAZQP6el0qAl0zTlNxjIQTFVU2sLq0nIdrR0ZZ5dWk9xVVNFI5yusNIKK5q4psdu/nO23/mgD3B8QdFR+IuSKM+JZZFySlEalqfs8CVDW0sfmkd5fVt6Br88LgCji1KG6lLEEIIsUe/i/QMw4gCfg1cRs+6yb8wDONp4FrTNFuHYXxCiHGiot6NpegIADVNw1JQ2eBmWnpcl3QH5XSyqbKxRyrGeFZR18bCN5/igJVvA/DFYaew/FsXsCCpiewINxFxfTcaKaltYfHydexq9uC06fzspGkckp80EkMXQgjRTShVLP4JHA/8CngW2AR4CZR9Ow/4KZABnDJMYxRCjAMZrgh0DazmZrTyclRWFrrmID0+kPvbnu4QNBUjM5bv5oCenTNq9YoHs4hQKcWMZ39H/J7g+MtDFvDOCeei+2wUHHBAly58nc8DQHkZG2wulr25mSa3j2injTtOLWJWtmvIrk0IIUR4+qticQFwHHC8aZofdHt7HbDYMIw3gP8ahnGeaZp/H6ZxCiHGuIK0WGbFKb751MRCR68z2e/QmRSkda3W0CMVw+9n1efrMf/6JoXxtlGpVzyYRYRKKfwP3U/8S/8HwKf7H8fbhx9LWuUKMqcd0+X6O5+HtHQ0TWNlm5MHihbi1u0kRDlYunAGU1JjhuU6hRBChKa/GeTLgD8FCY47mKa5wjCMx4FLAQmQhdhH6ZrGhV+/wuaPVlAZn0p6QzVTI+ahn7J/l+16pGK43VheH5UpORRs+3JU6hX3VTPZZ1m8Z1azuaqZqWkxHG2kYt+zyE4phf9XD2L97ZnAtZxxFulX3cgxu5vx1iZx7BGzu6aOdD7P9u18mFbEIzNOw6fZSIuycdfZs8hKkNbRQggx2voLkGcBD4dwnNeB7wx+OEKI8Uw//wIK/u9ZCmq2AaCd/9se27SnYrSXOlMREegOO+k1paO3gK+XRYQ+y+Kmf35DSW0roGCdxmvfVPDAOfth0zT8j/wK65k/A6CdfibF552HkR7HtEwXEKTyRKfzvDHrWP6YMhelaeR66lh6wVGkSHAshBBjQn8BsgtoCOE4LUDfVe+FEBOeI38K3n+/As89C+dfgCPITHBBWiyzc1xdcpDnHDwdY9H0UctB7q1m8ntmNSW1rUQ6NDTNhlIWJbWtvLehiqP/+3esp/4IgH7KaZRffjnvvvoidrudwsKiXs9ju/s+/u9/G/nbxiYAihIc3HH6fOJdklYhhBBjRX8BchmB9tL/62e72cCOIRmREGLcspRia3QqFedcRUZ0BAVK9ahOoWsaF8/Lo7iqicoGN+nxY6OKRbCayZurmgGFptkC22g64CP+mSew3ngOAP2kU7Hd9XNybTbOOONcsrJyej2HpRR/+nwny/cExwfmJnDLyQaRDtuwXJMQQoiB6S9Afhu43jCMP5qm2RZsA8MwYoAfAi8P9eCEEONHX41CggXJ09LjulR3GIumpsXAOg2lLDRNRymLs758mf2/eBEA7cST+OyUk5i+fi0JhQbZ2ZN6PZbPb/HrdzbznlkNwLcKU7jh+AIctt6bhgghhBgd/X0zPwhkAy8ZhtFjWsQwjMkE8o/TgEeGfHRCiHGjc3WK5FgnCdGOjkYh49XRRip5yVG0eRWtHh8LPnuFc9uD4+NPpOUnN7Fh1VdsfvpPgeoUbnfQ47R5/dzzmtkRHJ+6XwY/ObFQgmMhhBij+uukt9kwjIuAvwJbDMNYCWwFfAQ66h0MeIDzTdPcNsxjFUKMYf01ChmP7LrOA+fsx3tmNdHPPcPcz14IvHHMcdh//iDxpTs4+8uVRMcnoKqqUJ99Aocc1iWPusnt465X1rNuZyMA5x+cw/mHTOqzo54QQojR1e/0hWma/yIQCL8ATAO+DVxAoMLFc8CBpmlKeoUQ+7jO1Skg8Leu0dEoZLyy6zrHfP4ac5c/BYCafwzvn7SANRvWQFY20SlpqKoq2FWL79HfdplJ3t3s4dZ/r+kIjq88Kp8LDs2V4FgIIca4UDrpYZrmWuB8AMMwkgHNNM2a4RyYEGJ8CVadYnaOq0ejkPHG/7e/4P/lgwBoR81Hv/8hfO++hdfr7ah+oT77BN+jv0VLSe2oo1yRlMXi5evYWd+GTde44bgCjjZSR/lqhBBChCKkALkz0zRrh2MgQoiRNZjWysGM1eoUg+H/+9/wP/hzANQRR8LPH8QRGcVJJy3cm0oSERFIq3jp3x11lLdFJnHnC9+wq8WL065zy0kGcycnjualCCGECEPYAbIQYvwbTGvlvoyX6hSh8P/j7/jvuyfwj8Pm8d5pp9L69qssXHguut41O61zHeX1NhfLXjFpdvuJibCx+LTpzMiMH4UrEEIIMVASIAsxgVlKUVzVREW9mwxXpxndPlorC/C/8A/89ywDQDvkUOy/+g1TSrfT2trSIzhup0VE8IWeyM9fM/H4LBKjHSxdOIP8FGkAIoQQ440EyEJMUH3VJdZ6aa0MQ596Md74X3wB/11LALDmHkLTkmWkREVRWGgE3b79fr3fEsXD72/Dbyky4iNYdsZMMl2RIzl0IYQQQ0QCZCEmqM51iTVNQynVUZd4Wnpc0NbKqq1tWFIvxgv/8hfxL10MgHbgQXx6wXlsev0l/t//u4yoqOge27enqrxmpfCn/GNQmsbk5GiWLpxBUoxzpIcvhBBiiEiALMQE1V9d4mCtlX2lpfts6oX/1eX4l9wGSqHNOQD7b/7AXBRZkyYHDY4BVFkpz9sm8fzkwwGYkejgjrNmERshX61CCDGeSRsnISaogdQltufkBFIvamp6pF6ESrndqK1beu0qNxb5X38V/x23glL45+yPef0PITqamJhYCguLgu5jKcXj2yyenxQIjg9qLmPpmRIcCyHERCDf5EJMUAOpS6xFRgZNvQjVcFXHGE7+N1/Hf9vPwLLQZu5H8XU/5INPPyRtUi5paRlB9/H5LR7+bzHvbwyUg/9W5VqubfqGCPvCkRy6EEKIYSIBshDdTJRFagOtSxws9SJk5WWo8jK06GhUWemQpWgM18/Eevst/LfeFAiOZ8zE/ugTzIqL6zM4bvP6ue8Nky9L6gA4ZedKLmtci1ZTE/L1TpTPmBBCTFQSIAvRyXicAe3LSNclVskpUFODaqiHeBcqOYXBtgkZrp+J9c7b+G7+Kfj9eGfO4pOLLuJwu41oTSM9PTPoPk1tPpa9sp71FYHW0RcclMXZL/wfhJGSMtE+Y0IIMRFJgCxEZ1IfeFC02hpITobcXGhqDvw7fpBNMobhZ2K9/y6+m34MPh/aNIOmZfey7b03mVpVyeTJwY+9q9nDkuXr2FbbggZ8f34+p+6XiTowzJQU+YwJIcSYJwGyEJ31UR9Y9NQ5VQBAeTyQkQmVlWg5OUNz/4b4Z2J98D6+n94APh8UTsP+2JOkJyZyYU4OERHB6xbvrG/jjpfWUtngxqZr/Pj4Qr41LQUYQEqKfMaEEGLMkwBZiE46twyW/NC+dU4VIC09UGu5sgItPQPbkmVok/OH5P4N5c/EWvEhvp/8ELxePNMM3jz7LObUVlOQmNhrcLy1ppnFy9dR1+Ilwq5zy8kGB+UlDngM8hkTQoixTwJkIboZ1CK1fUnnVIHt21EaaFnZqIoKNKdzSAO/ofiZWJ+swHfDD8DjgfwpOB/5PY7PPsJu7/1rcG15A3e9sp5mj5/YCDtLTptOUebg87nlMyaEEGObBMhCiIHplCpAbm5gBrmiYkymDViffYLvh9eCx4M7L4/IR36PIyOT008/u6ORSnefb9vFfa9vxOO3SIp2sOyMGeQlxwBShUIIISY6CZCFEAPSPVUAGJNBo/XF5/iuvwbcbvwxsbx6xOEkPfs0J9xwU6/jfNes5uG3N2EpyHRFsuyMGWTEB1IwpAqFEEJMfBIgCyEGrEeqwADSBiylKK5qoqLeTYYrtFrNIR/7qy/wXXcVtLVBegY2lwujuRVXde81i5ev2skTH2wFYEpKDHcunE5itHPvBlKFQgghJjwJkIUQo8ZSiqdXlLB6Rx2Wx4PudDJ7UgIXz8sbdJBsfb0S3w+ugtZWWvLz8d/1c+L+9AQz16wLlKHrlgailOJvn+3g+c9LAZiREcsds6OJsamuB5YqFEIIMeFJgCzEGDScs6pjSXFVE6t31OHaXhyY5Y2MZBUFFFclD6q5ibV6Fb5rr4SWFsjM5P3zz6dx5Wecq2loGj3yjv2W4vEPtvLaNxUAHJLr4kcfPInz3zvwdUujkCoUQggx8UmALMQY0zGrWlqPpUDXYHaOK+xZ1YEuJBvJBWgV9W4sjwfa2tCcTlRbG8rjobLBPeAA2VrzDb5rroDmZsjIwPHEn/lWTAytWzajvfFWR6WN9tQIr9/iV29v4oNNtQAca6Ry3RQd6/kdPdIoutwbSasQQogJSwJkIcaY4qomVpfWkxDtCFSGUIrVpfUUVzWFHDQOdCGZamsb0QVoGa4IdKcTIiNRe2aQNaeT9PiBndNatxbf1VdAUxNNeXnsvPFnzMyZRCKQMCsGX7fUiDavn5+/bvLV9joAFs7J5HtHTkbzeFDdtpXFeUIIse+QAFmIMaai3o2l9qYBaJqGpQhvVnWAC8l8paUjugCtIC2W2ZMSWEUByuNBczqZMymBgrTYsI9lbViH76rvQWMDpKay/qqrWb9hDfkHHkx0dEyP1IgmpbP0xbWYlU0AXHRYLucelB2470HSKNTWLbI4Twgh9hESIAsRxGjWuc1wRaBrgUVj7TPIugbp8RGhjyvMhWTtx7UZk0d0AZquaVw8L4/iqmQqG9ykxw8s39oyN+D7/vegoQGSk3E88WcOz81jRn0d0dExHdu1V92obXKzePkatu9qRQOuPnoKJ8/K6HLMHhU6ZHGeEELsMyRAFqKb0X6UXpAWy+wcV48c5KkuR8jjCmchWefr3T05D9viZWi1NSP2y4GuaUxLjxt4znHxpsDMcX09DZMm8eWll3JMVhZOXScxManH9uV1rdzx0jqqGt3YdY0fn1DIUYUp/Z5HFucJIcS+QwJkIbob5Tq3e2dVm7rMqmrbtuIPY1whtzPudL3+0lK02ppxswBNbS7Gd8WlsHs3JCbSeOsdlG9YQ2NjI8nJPQPYzdVN3Ll8PXWtXiIdOreeXMQBuQkhnctSiuI6DxXeeDLqPBSkOSdkZREhhBASIAvR0xh4lB5sVlUN17g6HdeWn4c/jOOOZiqK2roF75WXwu5dWImJOB97kvxpBjlzD8XhcPTYfk1ZPXe9uoEWj5+4CDtLTp+OkRHarPVQVRYRQggxPkiALEQ3Y/VR+nCNq/Nxk2Yb1DR6Q9pPud14bvsZmxv8VGZOJvuKSynIThyRgFGVbMN7xSVQW0t9dhZvnnMOx8REkw1Bg+NPt+7igTc24vFbJMc4WXbGDHKTokM+31BUFhFCCDF+SIAsRBAhpyeMsOEaV/txtchICDFAtspK+YsjnzXT8rF8FrZ3i5k9JW3YZ1VVyTa8l18CNTUQE0P0nfcSV15CVFRU0O3/u76KR94pxlKQnRDJsoUzSIuPDH7sXmbEh6SyiBBCiHFDAmQhxIBsdiayJmUqruY69MhIiI8e9llVtWM73isuheoqmuPiiU5Nwfn8syzsZcHii1+X86cPtwEwNTWGO0+fTkK0M/ix+1ic2VdlESGEEBOPPtoDEEKMTxUtFiorG1vRdLSi6Wg2W8es6nBQZaWBtIqqSlqSEvn32Wfy1f77712w2HlbpXjm45KO4Hi/7HjuXTSz1+AYCL44c4/2yiJ1LV5qmzzUtXiZneMaUL1mIYQQY5/MIAshBiTDFYGu66ioiGGfVVXlZYG0iooKiI4m9r5fMOvNV8nfVIyWkdFlwaLfUjz6/hbeXFsJwGF5Cfx0egRO5afPr7w+FkH2VllkoKkko7m4UQghRP8kQBZCDEhv9ZqHelZVVewMpFXsLKc2K4uYO5YSN+cA9n/ub9DailKqY1uv3+IXb23io821ABw3LZmr3voD2t/L8A2ydvRg6zV3XI+0rBZCiDFPAmQhxIAM9axqMKqyMpBWUVaKPzqG/5y1iITqnZxeXgZVlWhZ2ajKSigvozU7j3tf38DXO+oBOOuALC7O9ON7umzoa0cPxijX2RZCCNE/CZCFEGHpnB6gR0QMyaxq0PNUVQWC4x07IDKSiF//lgW5uURFRUNEZJd0iIakdJa9tJaNlU0AXDIvj7MPzEa53aNe07qHMVBnWwghRN8kQBZChGyk0gNUTXUNA6bDAAAgAElEQVSgCcj2Eipzsmm59nqMgw8lvdM27ekQ1fGpLHllI6W7W9E1uOboqSyYGdhyLNa0HotjEkII0ZVUsRBChK6PSg9DRdXWBILjbVvB6eSb8y7gy901+P3+LttpERGUJWRy8ysmpbtbsesaNy0wOoLjzttp+VPGVCA6FsckhBBiL5lBFmKC6V4hIdyKCX1uP8j0gP7GpnbtwnflZbBlCzgc2H/5CCccejgejxubzdblWMVVTSxZvo6GNh9RDp3bTp3OnBxXeNcjhBBCBCEBshATSPcUCNviZfiXLQ45JUK1tfWZQjGY9ID+xma78Wb8P7gKtbmY8pwcNp5/PscdfgQOm61H++jVpfXc/ep6Wr0WcZF27jx9etA86OFICbGUoriqiYp6N2nxTjQ0KhvcZLiGfpGiEEKI0SEBshCMjVnGIRlDeRmqrBRiYlClpbBqZUgVE9rP7Y1x9Lt9f5Ueer2O7ukZq1aiysvQoqNR20vwXXU5bN0CdjtNl13OLk8rHo87sCivk4+31PLAGxvxWYqUWCfLzpjBpMRogrE2mqiNJuTkDEnFCEspnl5RwurSevyWYneLBzSNpGgHuqYxO8c17K22hRBCDD8JkMU+byzUpR2qMajkFKitDQSa8S5U0Yx+UyI6n7sxNwfS0lGVlQNOoej1OrqlZ6iiGVBTg6qvA78ffD58TieR9z3ErGOPZ7rfh83W9SvqP+sq+e27m7EU5CRGsWzhDFLjgt8nq6EB/4+vh9qaQGA878hBV4wormpidWk9CdEOmj1+PI0KpSwiHZFEO23D3mpbCCHEyJAAWYixUJd2iMag1dZASgpabi6quRm9qRG9n5QIq6yUTQ1+KicfRPbucqZcfw22iAjIykY5nWyqbKSiPsQUgj6uo3t6BuVl+BMSoKkR3G7KcnL438LTOH3//UmCHsHxv74q46kVJQAUpsWy5PTpuKIc3Uew16qV0NgArgRoacZ25lmD/sWnot6NpUDTNNxeCxRoaLh9FjER9o5W2xIgCyHE+CYBshBjoS7tUI0hKzvQPKO8HC07p9/jWErxTCmsMhZgeX3Yk2eyX5WTi4/KB+hIJ7AsC93nZXZeMhcfNaX3ILmf6+icnmHFuwKto1taAHBddiUpEXaio2O67KOU4umPS3jhq3IA5uS4uPWUIqKdXRft9TDnAIh3QUM9uBLQ5h7S9/YhyHBFoGuBMUU4dGj/b7s+rK22hRBCjCwJkMU+byzUpR2qMfSYpYU+UzeKq5pYvbOJxILJaG43jrhoVu9sorgq0HBjdWk9CZE2MDdhtbWxqiqB4imJTMtJGtR1qObmQPpDQz31CQkk/ehGks5YxKndtvNbit+9t5n/rKsC4PApSdy4YBoOW/8VKvX4eOz/fCkwkzznAPT4+H736U/n9tp+S+G0aYBOm9ePx2cNS6ttIYQQI08CZCEYoRbDIzSGzsdRW7f0mbrRkTJgs0F0NJrNjqU8VDa4USoQoDY3tdJm2YiMjMHv9VFRsrPXADmU61Atzfh+8H3UqpVUp6by8qIzmD+tkOndtvP4LB56ayMfb9kFwIIZ6Vx99BRseugL4PT4eDhqfsjb93u8bu21U+MCVSyqGoen1bYQQojRIQGyEBNE0OoR/aQ8dKQM+P1objfKFt2RJmCpQJUGj8+CqERQFg4UabkZAx6f2rIZ/wP3olZ+BZpG2jXXM3dSNlOmFHbZtrmxhXtfWcfqWg8A5xyYzUUHpqOVbEUNop7zUFQK0TWtR3ttI2Pvf4+FiihCCCEGRwJkISaA3qpH9JfyUJAWy+zMWFZ9vh7L68PmdDB7bhEFabFsqmwCTUMBWmQkyrLQnHY0h3NA4/Pe/FP47BNobmZHTg6Zl1xO9KKzmdtt27q6Ju7803tsjgjMUl96aDaLZmeEVeUj2P2AvtNNhsJYqIgihBBi8KTVtBDjnKUUm9Zt4wNPLMVZBv5uLaD7amusaxrfzYErzTdZ1GBydfFbfDcn8Hplg5ukaAf5KTFkJkSRnxZHUoyTqkZ32GNUW7d0BMctUVG8fcpJfJGW3GO7qkY3N/97LZsjktCVxbWb3mJRij/8FtfBth+BNtkjcg4hhBDDTmaQhRjHOhpX7GjFn3c4usfNfq7JXOx2Y3O7Q5q91LNzKIy3UbDtSyLz8/Bn5wDt6Rca0U4bMRF2lFJ4fFbYVRqU243/4V9AczMA0bl5nHbKItKyu6Z77NjVwuLl66hp9uNQfn684VUOjWrrSAvpnioykJbYQ12tpMcYxkJFFCGEEIOmKaVGewwjaTKwtba2Ccvad647NTWO6urG0R6GGAYbKxt59L0tJEQ70JRCNTezu6ySKze+RWG8LeRH/O2BXupsg5pGL9C1a5ylQNcIu1Oc8njw/fh61If/Y1NhATHfOoa8K6/pMaaNlY3c+fJ6Gtt8RDls3H7iVPajodf8Yeg/XWIwOcid20n3Vv+5t3SKfSEHWb5TRKjksyJCNVqfldTUuKD/Q5MZZCHGsc6NK9A0NJsNy+enMiWHgm1fhtxwpHvlC7Ky0SMiOio2VNQ2keFuYOr0jJCDY6upCf+PfoD6/DMsTWPtcccRm5vH5G5B46odddz92gbavBauKDt3nj6DqS4HlDf0OcaBtMQOpVJIyL8Y9NIUZSxURBFCCDE4EiALMY51blyhaRoqIgLdYSe9pjTsR/zK7WbXbTfi3VbSMSOqR0RQmOAk/8H7UTvLsTKz0EOYlbaam/AtOhWqq1GA/drrWXjhd7Hbu37lrNhcy4NvbsRnKVLjnNy1cCZZ0Xr/C92GMZWhcztpTdNQSgVvIS3pFEIIMWFJgCxEL0J5zD7aOjeuaJ/tnHPwdIxF09Gzc8J7xF9ehr+0tOesbJhtsJXXi/8nN0B1NeunF1EzaRLHHHs8kZFRXbZ7c20lv39vM5aCSUlRLFs4g5TYiJBnh4eruUuXWXkCfwdrIT0WGswIIYQYHhIgCxHEUOTfjoTujSuCNasIOSc2KxtbTg7erSVdZ0TDmClVPh/+W29CfbICgJbUVFpT07AyMjtK5iileOGrMp7+eDsA0xIcLD51Gq7Y3ms3B7uG4Upl6DEr30cL6WBj2BdykIUQYqKTAFmIIEJ+zD4GBGtc0S6curxaRARJjzxM9WqzRyAaUvtonw//7Tdj/edNvHY7ERdfxqGnno7KzMIWFZg9Vkrx5EclvPh1OQCzWyu46dMXiP46FdVL7WYY/vrFnQWblQ+1hbTUQRZCiIlBAmQhggj1MfuYF2Z6hBYZiRbk/X7bR/v9+O+4BeuN11g3YzrfHHEEiy7+HrGxe++V31L85p1i/ruhGoAjMiO57t//wJmU2GNs4S7IG0qhzMr3KoT7PR5Sd4QQYl8nAbIQQYTzmH1MG+BCsu4l1fqaPVZ+P/4lt2O9/ioA6Qcfxq6cXCJtto5tPD6LB97cyKdbdwFw0sx0vn9YNurj9P7HNgqL4dpn5QsTnIFr9zghlJngfsY6XlJ3hBBiXyd1kPcBUocyfBMpkAknJzY1NY6q0pq9aQLpGSiloKoyaMqAsiz8d96OtfxFapOSSD35NKyKnVCxs2P7Fmzc/eoG1uwp2/btuTlceOikwC8eIY5tNPJ6B5ou0ddYu9St3vOLV12Ll6uPnjKunkzId4oIlXxWRKikDrIQ48CgHrOPMcrppDg6lYqSRjJcnv6vo3OawPYSALSs7B4pA8qy8N91J9byF9k8dQrvHnsMpx9yJOkP/6IjxaBu63buXNXClupAF73vHTmZM/fP6jhVqAvtum83ImkKYaan9DbWziZM6o4QQkxwEiAL0Yu+Fr8Nt6GaMbWU4ukPtrC6pBbL7kDX9f5nwjunCeTmoTxu1JYtkJGOSk5BI5B64r93Gda//wlA/iHzaJs3n6yimVh79q3OLWDZZw2UN7jRNfjhcQUcW5QW8nX29t5AZvcHdD+HIbVjwqTuCCHEBCcBshBjzFBWQigu282qz9fjaq5Dj4wEo6jfahydq0hYsXH4zz8HdtVCRTn+xbfCfQ9h/fJB/P/8P4oLC5h64CFE3HQLB+wJTvV77me7uY3FXzSwq8GN06bzs5OmcUh+UsjX2dd74VYY8be1YS67n4omLxmxDozFP8MWGdnvvRuOOseDqZAhhBBi5EiALMRYM8BH+8HsLNmJ5fWhO52otjZ0txtL2Xs80m+fYVVxBrA3TUD74H1oqAdNA78fVbwJ/9I7UK+/Sm1KMu8fPR//kccwu9PMrbnbw9JP62ly+4i2a9x+UgH7TU7qMbY+r7OP98JJU7CU4pl3NrAqfj+sJAe618ucdzZw8clzQkrJGOpayxMpdUcIISYyCZCFGGuG8NF+Zl4m+idbsZqb0CMjA62o2/xdHul3nq3dNTkPtfjuvbOlcw6AeBfUBEqzUVOD2lOtIsUZyRmnnEnW5L0B5Ffb67j3tQ24fRYufxu3r3qBqcWOjhrHIV9nH++Fk6ZQXNXE6gZI0C1oqYfISFY1MKr1rEczdUcIIURoJEAWYowJ5dF+qIvUCrITmXPwdFaV1KLsDvQ2f89H+p1ma/2lpV1ma/X4eGy/+g3+W24EjxtVVcWXcw9ickMTKTY7WWgdM7kfbKrhl//ZhM9SpEXZuGPF38mOsQ+oXXRf74WTplBR78ZCQy+aDm1tEBmJavHJojghhBB9kgBZiDGor0f74SxS0zWN7x6SzeY4HxUR8WQkx/YMprOyIS0dtX07euFUrO6tnQungd0OpTtwR0RQbBio2lpSWtxYW7egJafw5vYWHn1vCwrITYpi6UkFuNZH9zsL3td19vZeOGkKHbPNmoYWHT0si+KktbQQQkw8EiALMc6Es0hNud1Yt9/M5J3l5LcvdgsSSGqahtICqcbK7ca/bHHHAjktNw+1bSsAkQkJnLl6DRGRUbB1C77PPuGFg87gueknAFCUEcfi04qIiwykVQxX4BhqmsJwL4qT1tJCCDExSYAsxDgTVi3dUBb8lZehKivQsrLxl++EVSv37rPqa6y332LFEfOISkvnQHMjUYlJqG1bsRobefqw7/BK4VEAHJibwC0nG0Q6Ah30hnqB20AM+6K4IVxQKYQQYuyQAFmIEdZRMSI5Ba22JuwZ1oxoHd3rRvltaDZb0LSBLufob8FfpwVxtvw8fHMOCPx71ddQXQWAf9IkrJn7QX0jqqICX/5Ufj/9VN6fdCAAR6XaueH4fJwOW8/jD5JyuztmsLXJ+WHP0A64bXQoRqENthBCiOEnAbIQI6jjkXx5GdTUQHIyWnZOWG2M8x5exkxHPmtSpqKysjuaf7SnDXR/7G9bvKzPQLzzgrik2QY1jV4sowjr7bfwOhxEHHEUR1XVwjd/h7R0/Lcv5aFii8+31wNwUt1Gvvfxa2ifZwWvVjHY+3XLjajPPwMNOOhgHPc9FPY5hisVYjhqJQshhBh9oxIgG4ZxMXA9MA1oAFYAt5imWdzHPhHAUuACIBVYAyw2TfP14R+xEEOk/ZF8dDSqoR5yc1Hl5VhlpWyOSeu/dXJ5GdrOci5K9rC5tpiaw64ioyC36/Z7zqGSUyhu8FP9zQ4yC3IpcDrpLbGgo+5xZCS+3z6G9btH+OjII6jIz+esk89Av2cpWnIKTTV13Pd1E+t2eQE4rzCGc555DX24UgzKywLtrpUK/Nm+fWDnGMZUiLGQSiKEEGJo6SN9QsMwfgT8GfgUOBv4KTAL+MIwjPw+dv0zcC3wAHAOUAG8bBjG/OEcrxBDqv2RfHNzoL5wUzMqK4tnSuHR97bwwldlPPreFp5eUYKlVMduyu1Gbd3SkTKh1dRQGG/jqLkFTEuPQ/N4Au+73ZCVjUrP4C+RBTw+7UT+td0T9JjBNDz2BNavHgJAb9HY4prGczWRqMwsdte3sGT/8zqC4yuOyueCo4vQM7NQNTU9Ugw6xux2D+5+5eYFVg9qOuTmDiyNof2+Bxlnb4Zk/EIIIcalEZ1BNgxDA24HnjdN85pOr38IbAN+APwkyH5zgfOAS0zTfHrPa68DnwP3AEcO++CFGAKdH8m35yBvciSw+qMdvVal6C9lItj7m52JrInPw+VvwxbjRGlavy2m/c/9lfoHfk5tSgq7tHheyj4Ke5mbmuh6iq64mSc/KqGixY9N17jhuAKONlIB9ralzsxiU52HivpGMqJ18h5ehjbIlAYtIgL7zx8MOQe5t/rQ4aZCSHUKIYTYt410ioUL+BvwSucXTdPcYRhGA9DbtM4pgAX8q9M+lmEY/wB+bhhGsmmatcM0ZiGGVMcj+T0zkzsb+qlK0S09QKutQev8SL97+sCqlVS0+LFSnGgt9dDWhhYd3aPSRef6vdZL/8Z//72sPOhAvt5/f75oK6TRFoOmQN/dwq/f2UyzX8Np07n55Gkc3Kl1tBYRgTU5n2c612Z2tzFTz+XCxFb0TikNA1mgqEVEoBlF/d7X/upDaxERqKzswPn7O69UpxBCiH3aiAbIpmnWEcg97sIwjOOBBGBVL7vOAMpN02zs9vqmPX8XAR8N1TiFGG6dZyhT82aizz6j99bJ/VVK6P7+nAPIeP09dK8XIiMD3eO6HbPz+fFbsGEdAJMtO8/5c2nFidPvxavbaLI0UBrR3lbuWDCDWZ2C43ZdajMrhVWynTUx2WwxP6ZgSkYg7WOQCxT701996LBmhaU6hRBC7NNGvYqFYRhZwB+BSuCxXjZLAOqDvN6w5+/4cM6ZnDw0TQLGk9RUaas7lniLK9ldXYktMwOjbAMHH38OK3dbWCh0NA6blsrhMzLRdQ2IQz32O3ylpdhzctAiI7sdref7KY/cxdfLV7Fylx/La6GjUZgZT5MFlW1+fKU7KfbHM03fRcL6r9gwcwZz4l1U3HQfu15bj8fy4ddt+Gx20DRiPK0s+8/DHHjcYqJSp/W4nq8rmtDtOhERDlRzM16vB2LjqZ40lcNvuQZnTgre4mJ2V1eiueLxbN2Cc+oUVHUliW11OHIKBn1PO4+hne7x04JGampcl3vu7/e8/d1zId8pIlTyWRGhGkuflVENkA3DKADeAJKABaZp7uplUx3oa3VR3yuPuqmtbcKywtplXEtNjaO6uvvkuxhNKjIBX2o63j0zlN+ZN5W59d4uzSxqa5u67uRKh0YvNHqDtzfu9D7AecfMYG5VEzvr2/hi2242ltdjltezq8ULSnGCW+fQb75kW/5kPj5iHsknnkpWVhI4nPi9VkdwrFkWV694hsn+JhomGzRVN/Y4f7SmsHwWbrcXTbNh2Wzg8ZIaH0WdKx2turHjmlVZKcTF49ldj5aTw+7IBLQh+Hx2HUNgBtnyWUSjqG4/f3Iq3m0laLl5oZ232z0VAfKdIkIlnxURqtH6rPQWlI9agLwnreJ5wA+cYJrmp31sXgcYQV6P7/S+EONGsEVj0yIj+22dDKEvIGtvkAFQuruVxBgnLR4/bm8bR278mG+v+Ac6Cs3r4JB5J5FbYFDZ5sejwGd3BsapLOK8raSkJWF79CH0+Pig529v6bxqRx1WWRk6Tma5q5n2sxs6xhZsgeJQ1g4Opa202lPFQ/VTzUMIIcS+bbTqIF8OPEogh/g00zS39LPLBuAswzCiTdNs6fR6IYHZ4w3DM1IhwtNbFYVgutfPDXnfMBeQdW5N7fZazNv4CZe9/xQfzj+SjIp6njnlh5wek4ZSimdXbKPVawEQaYPc3RV4nRFU2WKY0dQIqalBz6/nTwm0dP7aTdmKj0mP0JhSZmLbdQK4XHuvr85DhTeejFaNgsn5Q9fymRDaSpeXQVUlWlY2qrJSFt4JIYTo1YgHyIZhXAQ8DrwPLNqzcK8/rwN3AGcBf91zHB04F/g4xGMIMaz6q6LQWfcUhaD7Zsby3RzQs3O6zrKGsICs8/E7t6Y+aOMnnPvOEzTGx7Ftcj5fz90PrzOa1Dgnj3+wlXfWVQLgirIzNTkarbGcOq+P9DjH3vP0cn5d0yicMZl8ZxOqrOt74dybYPcnVO2z5u2L8ti2FWvPbHVIbbeFEEIIRr4OcjqBmeNa4G6gyDC6ZE7sMk1zo2EYM4B40zQ/ATBN82PDMF4DHjcMIxUwgauA2cCJI3kNQvSmvyoK7YKlKBTXebru6/ez6vP1mH99k8J4W5c0iu7pGcrpZFNlY8fM81SXA+v2mwMVKtLSydM0ZkZMheYWzvrwWXSl2BWRzCbX4XicCczKjuflVRX8b1MNAJMSo3DaNOra/Gi5BcyJB+PYk3uc3yorZbMzkYqSRjJcnsBsbS/1hkO9NwD+tjY2LLufVd5otPg4DrjkXKblJIU129xbxYz+2m4LIYQQMPIzyKcCMXv+vB3k/ZeAM4HfA/OhS2fc7wD3ATcDcQRaTZ9umua7wzlgsW8ayAxm51QGCFLPuF23FAW1bSs7a/z4vV603Y0Q70Jra8PyeKhMzqKgZGWPdID29IygM7NxivN3lmNLTkFt346G4iK24d1ewlsnLyC3sZm4627jNCJJjHbwz6/K+LIk8BDm3ENzueCgLLaU11FRspOMvEwKshN7zoA7nTyz08bq0h09Z4SDtF7u7d5U1DZR2FLddSb9nQ28mzKPFrsTFLz22kaOyYnk4uOmYwu1mkQvLb171JAWQgghghjpOshPAk+GsN3RQV5rItBp7wdDPzIh9hpoF7UMVwS6Ru/1jNt1SlEgPR3/Y78ntcGHnnMU/rYGNLsdFRuH7lGkr/sK9tQRDibYzOyqBg+H5s2kYNtayM6Gr1eiNdRj03WcTiexl53PtMIcstp8LHtlPesrAquG/9+hk/jByUVUl9WS//AyJu+5fu2e+6Hb9YczI9zbvdFQpPz1cbwla7vMpH++y4/b5iDS5wFdx9Om+GxtDYd9tJzpS24O7ReW9ntcVtrR0lvLyZG0CiGEECEZ9TrIQow5A+yiFkoVBehWzcHjwbdsMVM1jVnl61iTMwtLKXS/zn7sYorDg/2qa3sNCoPNzCo0ai68kulRrfg/WUHbxx+h2e04bDZOOuMcbPsfyK5mD0uWr2NbbQsa8P35+Zy6X2bgOCFcf68zwvVtHe93XmgY7N7MiYcpJWu7nKfCG4/Hr9AiI9G0SFAK1dqGx+6kstHL9BB/FsNdMUMIIcTEJgGy2Of1SKcYYBe1fqsodNK53bSWmQWlO7jw61fZUvI1lak5pGcmMaVsE7bcvI4xBgvuuszM+v2o+no0ZzQZybGoTZvw//JB3jxpAQ7Lz4LGFvTpM9lZ38bil9ZS0eDGpmv86PgC5k9L3XvQrGy09AzU9kC94GDX39uM8Ocluynd1Rp0IV73ezPV5cB6p+t9zqjz4LTbUPjApqOswPGdXk/XhYIhaL/HGkB8WL2EhBBC7OMkQBb7tN7SKYItNAtF5yoKoWg/l9q2Fd8jv6Lgqy8paKlCSzkY/Zbb8T/5BL5li3tN9eioP7x9F9bmzeg+H7N2l5CfWoPv1pvQvF6KamqJPPvbOI86mm2NPpYsX8fuFi9Ou86tJxsclJfY8770Uy842IzwpKRoSne19pp2Eeze6N3uc0Gak4MnJ/LuhmpaPD5AIyo2mkMKXBjHnSAzwEIIIUaEBMhi39ZLOkH3GsXDoUvd4xaN3MoKdJsNFKjSHWh1uwN1e/tIdWifmV3fsJ13KzfTGB3PrK0raVvyAo1xcaTExlF70U9Y740k6qudvPpNJS0ePzERNpacNp3pmUFmVjvVC/ZXVrJp3TYqYpK7pEy0n3djZSOrSxtQSqGAktqW/hcpdtL9PuuaxiXz8jhiajJfl9ahoTE7J74jwBZCCCFGggTIYt82wHSKwepRfQLFzDmnc2HlH9EtCy1nEqpoBsTEonbsgMmTex2bpRR/qoulZOqhzNi5kZllG/jw6KPYmZPD9ri5fLOqAUvV4Qv0/yAx2s6yhTOZnBITfHB77om/vJy/zVjAmtV1WM4WdF3vkjKh3G4+/moLq+stLK8Pj26jye0nKcaBrus9FikGqwwS7DVd0zAy4jAy4vZus20rKszZ/IHWUg7HSJxDCCHEyJMAWezTBpNOMRjBqkCsKTiQLbXzKdi+DmVZWPcshfVrwVKQm9vrsd4zqympc7Nf2Xp+8s7jRPi9TF2ziR0Hnco39bHYdIXHu2djpTh9xxfkxc3p9Xjt92TLqk1887+tuEo2oUdGglHUkTJRmODEXHY/q+L2w9Vch+Z0oCKjaErOpbLBjdNu67JIMVgqC9BvtZCBVhQZ6H7hGIlzCCGEGB0SIIt93kikU3QXrApEW5uX96NzYaqTKVtWg9fDlv/P3p3Hx3XVdx//nHtn7iwazYz21doteV9w4mxkM4EECNBS9iWBQkOhG31ontAGEmLIQ9KUQp+WrdCFEJbSpAEeCimBrGRfHMtbbMvarF0aa5kZzXbvOc8fV1IkS7ZlxY6V+Lxfr6DYGt2592oifjrzO99fwQoGQkWUj9u09PZgNjTOO9ahoSTNfQf41BPf4+DqlZR09nPH5X+Kky3Gljmyjvs4QzqYKGIZdcJkDuHzMZATSNvBsCxUOo2RySCVh8GJDCsnhxlI5JBRE2HnIBBApNMUeOGiVSVURgJzNimqhVpZ4MRpIUtMFFny152MV+I5NE3TtDNCF8iadgYcnQLRHUsympa8UNzI/kwFa8O1oBR7VD5SCIxgkI09cE1lGqO/b85q96bYId5339fYv3YVO163md2raxgIFeFN5pBTe+xMAUGVI6NM6r3ZRbWSVNRWYDzZgUwmMPx+lM+HkXbcloloFeUhL4bjoDxehGODP4BhWWxeEZ3fc3yMVpYTtrcstQXmlWidOUPtOZqmadrpJ461S/01qg7oiMUSSHn2XHdJST7Dw/EzfRraLLN7kFM5h+F4lsI8L9URH6TT9GeBoWHK4sMIy0KsXsNoRnJd689omjVYQ+7ehX3dRxGOw3BeAbe//S/oyKvGlA6OYc48nwBMA+pCJn/77g14A4EFz2v2a4264JgAACAASURBVEUqxfcebWdnVwzl8c7rQXbSae584EV2jktUzkZYFhtXRGc+f7TF9iAv5usWQ2UyL43DnpRzNhmeKmdrD7L+maItln6taIt1pl4rJSX5C/6fgl5B1s5acmICdu6AjZsxXuGcXEMIrtlSzqFghgfHDJ7viVMZ9bstF4EAubFRlFQYXi/KziFyOVTWYTCRY+XUW/rykYeYuO1WHt92ORc99TRtTecQqVqBb1ySmSqO/XaWrMfC5zXI93tY11i06HHNhhBce3EDbS2lC+Y6m34/175546Jyn2HhVpbFtLcstQXmuOOwT1GRfCbaczRN07TTTxfI2llJTkxgv+sdMDEO4Qieu3/2ihbJKpNBfu6z1PX3cXHtWl7c8I6pE5PIF/fhVRbkcsjEBMLjRXm9CGlSFvKiOkcgFMLZfhPxYJDB8jIS0Sib25/n53Xnkyl0h4sUZuJMenz4vQa1xXnkWSa7eyaOOQ56ISfKdT7Z3OdX0smOw9Y0TdO0acaZPgFNOyN27nCL42Ce+3Hnjlf2+Wdt8Gro3MOGMIxN5oiNJRmTJuckDrOlZzfj0VKOhAoYTaTZuCJKy0034Pn4dcj9+yAep9xx+MCmrQSCEW656i85MKs4NvLykJaPcMBLnmXOySU+naRSHBiM88iBEQ4MxpFnqI3rWOOwT/f1a5qmaa9+egVZOztt3AyhfBgfh0jE/fMSHd2Huqi+1FkbvMzKSq7ZtopD4zkGYgmK7/oVDR27IHaEdnuIwcoGqi6/lKaqAmg7yNgdX+ZXV76RrXv20fiJPyXWvI6bt36Ew1YEoSQf3/crmrw5dr37Oh7qnHA31eVyyKFhhC9IWeDYvxerdBrV0Y4qKkbERk66X3hevvNpaGtYrIXGYc/OZdY0TdO0Y9EFsnYWU7P+WeIRjsrCNW/ajrP9phNm4y6Uv9zs99Nclo+6+bPuCnNRMatjI6ye+rxsO4h93R9iJeLkp9IES8vo/t4P+OK6dzFkRfBImz9/6F+4qP0ZCOXTaKaZ/L2/YOfhMWTbQQzpsK7/RWp23IW646sLZg4fufF6cu0dEItBcTGismrRmcWwvNoaFhqHPZ3LrGmapmnHowtk7ey0cwckEpAfdj/u3AEXX3ryxzk6C3fnjkVn4x5rg9f03wuAqb5o1X6I8T//FIGxUaxIhKvfcBUHf3APX1z/XsY9AXxI/vdvv8mmw7vcg9g2oruLa6rhYE83/Tt/RdnEMA0jXRgVFcfMHHZ6eiAvDzraETU1J5dZzPHbGl7pAnl6HPZiNxFqmqZp2jTdg6ydnTZuhnAEJpPux6W2WEy3SoyMuFm4GzfP/fMJsnFVJuO2NGSO3RerOjtIfvKP+PllF/P4ZZfh+fa/sqduAzetfzfjngAhO80tl1awabIflAIhwONB1NRiVFXTdOm5XNS9g6aRTvc/+JXNqKLi+c9bWYVZXQ0J956oZPKlazj6Oo9xXbPbGoAz3tZgCMHKqMXrPROsjFq6ONY0TdMWRecgnwV0DuXCTlXM25J6kFncqGLV1UnuY9fAyAh71q2lvLCE7j+9mb/9bQdZR1KYS/L5XXdTWxjAuOFG2LUTFYlihEKIunoA7L++HvXUE5CzYc0azDu+hrz91gWftzjfy3Dr/tdEDzLocdCni/6Zoi2Wfq1oi6VzkDVtmTDC4aW1VRzl6FaJRWfjLjCqWNbV0zaUYGA8Q3VymNAX/zfkcuSbHuxIHb/xl3P3/YeQCirzTD7/6H9QFrJQfX0YiThi2xVznkJ1tJPr7uLR+q20F1TT4MS5fO9eOEa7hPD7EUe1d5zMdS27tgY9DlrTNE1bAl0ga8vScp5QttC5LWY1et7XHTWqWFZUcufU6mtkdIhP/nA7D1xxCQhBb7KC1pImjvjyQUFDcR5fuKqR0J7QcUcd5woKufHcj9Lti7h/IQz+pyfErRWVmIsYkTx9zgutKB/r8aKvlwbLovGFx+CybRji1PQeL+k1UVmFKCtHdXchamr1OGhN0zRtUXSBrC07p/ptcanUzKrsyx03vNC5qUzmhENHjnVNs5MsDo5lae0ZpzYzygd+/CWiEzEueOQx/v3C99OxchNHUg4Afq/Bx15fS0E0hDoqCePo53zwq/9Gd8FmfHYGQykkgq6Y4Hcf+DRXFMgTjni2b7wB1dcLIyNQVISoqj7m92Pm8d1d0HbQ7Yf+u9vgF7/GLClZ0v0+0f1b1NfO6ofWNE3TtMXQm/S05Weht8WXaLon9psPtXPP871886F2vvd419KHV0yfW0EhqrMD1dnx0tARnw/Gx1HPPj1/A1xfL6q3BwIBVE/PzDUJn89tafD5GBjPEB4b4S3/9ff0VxSR9vj4x/Ou5dmSdcSmiuNowEt52M94yp739dNmNv51dtBuWyAExtT1GgBS0n44tvhrDQbd68vLO/73Y+rxKAlSgmlCNgsPPTD/3I6zKfG453Kyr4m+XhgaRFRWweDgy3otnSpLvgeapmnaK0avIGvLz1GtBy/nbfFTnss7/Zb9M0+DAPtbX8f4qxvc1dKJCfBaOPfeg3MkNmelUxUVu9nCHe1uQkRRMUevYVdlx/jEj77EvvUrObxiBT9ouJr95SvdVArAFFAetrDlsVMhZq+0UlpGQ14tKInELY4lgGFQ99zD5H7y5PFXY6e/D709btJHIomorj7292P68d1dYBjgOGBZcNm2eed20u8MLPU1cQpfS6eC3jSoaZr26qALZG3ZWWiIxlKd6lxe4fNhfuJT2N1dUF4Og4MY7YeQ9Q3uimky6W6Aq6yasylMxEbcwRs1NW58WmxkziY4NTTEir/5Mxgb5Nwnx3ig8Dz2Vaya89wKGE3ZXNRYdOxhF7NXWgcHuewP38F9T43QHSp1i3ivl9p8Dxc/9eQJN67N/j44hUW0tw/Q7wtTMZalqXR+ZNqcx1sW4nG3B3mmveJlbJhb6mviVL6WTgm9aVDTNO1VQRfI2rK06CSIE1jKuOHjbQZTmQwqm3ULnOFhKCxCrVoDFZXQ3Q3V1YicjRoeQlTNWm2trJopmuf8PaCGh+n7zJ+xY3Uzl8dGeOHa69ljV08t94JlClCKPK/gfZvLuXxlERzYjwSmo9ymz/foFVPP1q38n/tu4pGBfDqKamh8+xu5tCGKeCIy/xyPQSrF93eO0NqfRqo0hhiaE902737VN7g/WN793rkHepmruUt9TZyq19IpscxWtDVN07SF6Rzks8DZnEN5srm8x3sLXGUy5D77V/DcM+BI8FlQWgYVlQilUIe73TaLwkIoLMJz+1fmbNZbqPBWsRFyH/8IHUie2bqVC3qGuaP2KnqDRYDbVmEagkBmkksHd3NN5hDCtuGF590l5ddtQZgmanBg5nyBOc8jJyZwbvgManwMUV7hblYb6IdowbxznP1amb4XBycc/rnlSgqa6tznUoqxyRyfvKyBlVHrpFoGlnM6ySvltXAPzuafKdrJ0a8VbbF0DrKmvYJOOpf3eG+B9/XC4W6Qyt2IlkwiQiFUdzdKgCgocPt1a2thfHxOG4VUiraxLAO5MOVTLQpi9AjpT3wMs6Odeq8X33vWc4uVx4gvjCkdrqwLUVhRDKNHWHv3D1npdxB9vchslvZoNQOhYspjKRrSMcxZLR2ivmHOiqkaGeag42ew/hxK+toBGG44l7LhHlpGhuflHc+c795OerIhBisrcHI2IpOBYHBOm8rKyeGTahlYVqu5Z4i+B5qmacufLpC11zxDCJrL8hfXc3y8t8Arq2BFDQwOAALCYVQyCTU1bvtGf9+Cm9lmVrEPjyGzWQzL4twCwSX/cQe/Oe8c3pBMMPknf8MXB/IZ99kIJSmxJzkQD7I+1cmHL2+BX5uovkFU9QruCq9lt1mARGAEA6zPDPPBvf+DWV6OymYhk5lZmXTSab63Z5zW5jfh2A6jG7YghKAgHccoXMvGHri2Xs20SuTaBnF8Ee58boDWwymc2gvIOpKEFaTIsjA4anx09OW3DKhMxk0DwW0ZebWuqmqapmmvHbpA1rRZjrepS/h8eG65Ffv6v4ThIahegedP/pzZfcALDdRoG0rQeniMSHcbpNMEhOTCR39EKD5EcXERvZUt/H27h5RhYwhoiVrkBfORzz9HqyfAwXu+TcvXv4o4EuPFf/sRuwOlRBKjCK8XpMGuxs10vek86n/0beztN81ptdi//XZaw+uJCofJqhqGJhVKKQIlYYKhAK39CdqGEjOtEqPDg+yvWkXrhncQzbMQK+uQqUkOJRSDiRyWR860qTSVhhBCvKxNcHPaVhSIc7fi+fIdukjWNE3TzihdIGvaUY73FriIjUAijqhegRoZQVjWS8XcMUY0D4xnkNmsWxwrm7c9dTcVQ24UWiQGf7vx/eQMk3yvIJLnJxT1w5EYws4hfSEGhZ9VL+5FVK9gYNJBFnoQjsNkfgFpZZBN5xjI+qgfGpyXEzyQyCELvTA5SUZNtZUIGFcmmZRD2nboH0/PtEqYFeUMxHPIbBYR8rkZynkhClWGC5uKqIwE5rWpvKyWgdltK+BGxOlkB03TNO0M0wWy9po3e1MU8PI2SE23YPT0QEHBgnnGR4+dLg8aGErhE5Krn76HR6+8hMRzIbouv4a74mGkMKjKTfDRN23mxzsG3MSNcATl8WI4DmUqDRs3o4ByI4ewcxyOVpLw5yGFgUxLnh1IcV5pGcbgIGK61aKikvKQFyOXA78fX8AH6TTZnCSWzCIUOAqe7Rzl9ZfUICoqcYYHKa8qwrCso5I/BJtXROe0qZySzWYzbSuDAHoctKZpmrYs6BSLs8DZtot4zmjpoEHt17YjpgZnCCHmJD4spbCTExPkbvgMhxwfgxX1VP3RR2mqKsAQAjkxMWfstPmDn2Dffis/VpVc9Pz9rBjtpXXDeh7a8h4eMSsAaIp4uPltawhH8uYkbgjlsI4kNc0r6JjIUffAz7nooXv41rnv4YnazXgsLxgG+clx8rKTfGJ8Jy0feCfOv37HnR5XUYn4/C18/7EOdk64i7TDiQyprINlCiQCv9cgZJl8+o0raSnwUZAeIzbdg3yc5I9TOfBC9yC/+pxtP1O0pdOvFW2xdIqFpp1G82LdchnWeuv5cFEWMZ02cdQQj+NZaJVU9vXy/fzV7C5pQjoS88E2NjSUcu2Ftahnn4axUcgLuUXyQw8geg5zSbaNaGYUheCJsgtniuMNlfn8zfoAwYA76e/D6wo4lOhmoLyektIw3320k189PeCmZhRt4b43VPCW/Y9wsLQBf7QMn8cgMDjMaDDCYMJm1dioWxxPtVp4jsS49s0bZ1I8ekcneeDFISZzkkxOkrMlw1nJfz7by41vXYW3uglzOD43+SNg0JgdRWSz7jhtOKUDL4TPh2hZdeIHapqmadorRBfI2mvKvNHSjsnu4kYOxdpomk6bGBhYVOLCQqukAAf+/cfsDq0mcmQQIxqFcNAdX907Sv3PfwpSwvgYFBWjtp5P7lv/xINvuYqKvn4OmM38puYcAC6oi/IXD38X7z092BWVGDfciPzge6ifGKc+HOHh2/6NrlgKv1cg8CCzKbqjFfQHCghkJokMdGO2rEL6/Rg5m7J8L2zcPC9VYnaKx4HBOA8fGCHnOFgeAyFA2ZK+8TRtQwnKSt3+6emvmd685/T3IWevFOuBF5qmadprmC6QtdeUeaOlTRNVWcXI+X/M6nOa3Acttm92oVVScDfKFeUhZBZRWwemiVQO/Z392JOCwSveR1lPG01/8QnULZ/DG4ux7f7f8sPfv54nchEA3rimlE/VCeSPel46/kMPuKvOwTyYGOfQ/sOAByFMAIxQPmRyJEvKWcc4u2UpaiIFKxqp8UmGWs7DkxI0fuk2jP6+Ba+xqTRERTTAUDwDygABkYAXyxQMTmQWdw/qG5bfCGdN0zRNO4V0gay9piw4WtowKG+qmZM2sSizVkkpK3tp45vHwUinUD4LgsGp54JnEyaHW65E5mx8Bat497/8K/ljo1R6ffzz225gV87d4PbODWV85OIGyGZRs1dhL9sG3/nWTP9yY8sK7n9qAKUkQhjuBDwhaLBsLt13P+0VKxl68yd5bjhNz5EU3buGMcQwGypCXFMNxgKXZAjBe8+ppn9sEsux8Qf9BP1exiZzlIV9qHQa1dH+UtF7nJXik02veC1MkNM0TdPODnqT3lngbNokcbKjpU9kegOZ8+1voAYHIBJBPvEEd53z++yuXI1sWolpWVQXBjgcm6Qg4MGbmOAP7v4q+1bXkPVaPG5u4FBhLQDXdDzM74nBmVaFo4vG2QkYMhTif9+9i65YClCQy1GTHOLWgQfxptOo+ARtdev4znRmsRAox2G0rZPr9v8PK8PmgpvnnHSaf//KD9llFiC9FkZVFRtXRLlmSzneL36edGfXnI13p6KwPZWb+rQz72z6maK9PPq1oi2W3qSnaafRSY+WPgHh84FluckXRcWovXswlORDz95LW9Hz7Cr9KMbW81FK0h2bxCMd3vlf/0h9xx78R4b44ls/w2CwGENJPvnED9kWTKImU9DXi11bx0PtYxwagsb0GJe1lOAJh+HiS91rAf72Xet5aP8w7Yf6qL3/Pi5Rw5i9vTObDWdnFiczNulkirQDL1SsYuBIP9V7O2na1Dz3+vt6Oa9rB4GK1YhYks2XN9K8uRbR2YHT07NgO8XLziU+hZv6NE3TNO100wWytqw4w8NuL+5l2zBLSpZ0jNkbzOjrRcUV6qjpdidldqtFczPEYqAUTzZsYXekDnUoRjZnk04k+f3dP6GjvghPrIIb3/43TFoBvE6Ov9z/35w3sg8KixDV1djlFdxw9y66YpPgOGCa/HLXALe/rRnPQP/MuXoMgytWl6EaotgPfQ/VN/LSaOuBAcrryjAsi+5YknjGQUpJLhDh554WSsJ1ePan2DDZNbOCLpXizh7YOdUKYoQ9pBNemqeu06yuJtfRdeo33ulNfZqmadqriG6xOAu8Wt7icoaHca5+E2SzYFmYv/j1kovkmbf0e3vcgra4GFFZteS39me3GTgjwxz82f18O7yegkgQoRTs2cWbf3c3nijsa17FT6PbSJl+AtkUNzx9F5tu/EtEbd3MGOrfto/xzYfa8SXGMVBIBJlQmOsGnuLyticWbENYaOCJrKjka49283jbETyGm3VsOxKvgLqSPPKm+os/eVnDTIrFNx9qJ+o3EZkMyudjLO3MfL4438tw6/7T0iese5BfO14tP1O0M0+/VrTFWm4tFgvt49G0M0I++ABt4Up+13Q+beFK5IMPLP1gU2/pk+cmQohgcE4SxcxzKsWBwTiPHBjhwGAceYxfGIXPh5hOb6iqZviKt6E8bpSckUzw9sd+wsbevTijkv8qfCMp009+Os4tv/sO6zt3IsZGMcLhmWMcGkqiHAcpDLKmFykMlOPQkbPmpWYsdA7C50PV1XNoPEee1yTs91Ae8VOUZ+E1DYRpkpFumodUzCRUzKR8mCYEgwjTnPN54ffPPMepNvv8NU3TNG050y0W2rIgleL7BetpvehDSNzf3DYUrOfadPqYkWXHNXskdDiCSibdP2ezkMm4G+KmN/R1H0EmJzHygmyoKZxpR5he8VRFxdDfB7iT3gDKkzEMFMLOccETP2LHZa9j+PkCvnH+tdjCQ3HQy02//S5V/Yfc51+1Zk46RENJEEcYpLx+EIAChEmdJ4Pq60VUr0Bls6iJiZlV59nXb4+Pc+d9reySeaQcmEjbeExBQdDLkcksCPB5jKkx0VAWMFAd7ZQHo/NTPgSUhc9c0apXljVN07TlRhfI2rLQNpSgNZbF29JMdiyON5rPzpEM+7ffTlPXnpNOPpid0+sUFnFo/2F6/9+vKP/K12kMm1i33k7bWJbW7iOE97yAsHMoj5edbKKtqWhmQIbq64XhYUinAAGv24IwTaoHB1ix5moufOG3NA7tpyd6JV+/4Foc4WFF1M8t71hL0bv+BXbuQK1ag7z9VpxZCQ7VBUG8hiBjGAjlRhL7DEFldhyUQu3ZjX3T38Do6Lz2EDkxwYE/+hNa17yViJ0iuuUcbEdyJJnDEODzmIAinXXI2ZINFSFqv7adXH8ftRWVbHj7n9Han5iT8tFUGjqt399j0ekWmqZp2nKkC2RtWegfSzOSzJJzFBgBiNt4kQwkcqxcYvKB8PmQdfXc+dABdu0fxgk2YjS3sG6kg4/29tCfDuKMjyPsHJgmws4hYzH6B0pYOZlzi7ZgEDU+Bh4PIKDtII5p8uPN7+B1ex7kdQef4acbruLu0isBWBkf4OY3biBsAX0jsPV8RF+vWxzPuo7hXJjKoIHqH2TSChDMphDFxcQmHURBgds7XVrqtofU1Mx8nRPKR37n2wwoH9I0EekcIj5BTVERHjPF62oKuKQ+DMPDDPkjlBeFaEwOzTw/fX1cUw2HWhpOScrHy6bTLTRN07RlSBfI2rKQk5JUVrpjlYWBUpJUDnIFRaiDB5acfHCwY5DW3+0kkhx1OxkCQXaXNNJGHiV3fRsjf53b3WA7KCUxRkYoufWvkV//qtuS0dsD4TCMjoGSMJSjvbyR6q7n2Pv69eyvauAXtW8AoCk+wBeOPE6o4oo5q6LmTdvnJTiUj2UxfT4ihk1RYhj8fsbygpSFvKjhJIQjkLNfag+pqsaxLOTUJsbyoloMx0Z5vO5jlCLgNbmsIUL917aj+vtonB6PHa1Gznp+o6qaZp+P5rL8U/tNXAqdbqFpmqYtQ7pA1pYFj2kQsExyjnQLUQEBy4P/Pe/FG3zHovtTpVK0DSUYGM9QHvHRt+sAUkp35LTjkCqrIu7P54W2Qd7WtYf1LZXsipQgA0GMsVHWxTpo6N6HeHHvTIuGTCRwbr4R/H5oO0g4N8lFrQd4sbaZ+2ovByDPMnnb65vJ3/rWeauiIjYybyxzU6nF+hVRnrHryWZyWD4v59YU0vL7N2D096GKihGxkZmPVFYhf/5TyGaRHi9SCAoiefQXN2OlHExDsqE6QmN2dN5qtahvWLZjofXIak3TNG050gWytixURvyUhCy8piDrKKypjxXF+YiyykUdY2bTXWcMJz6BmR+muqAIYQwgHYe+aCVxAtiTOR4aEMRXvYkPvPD/uGDlJobfdC0lt99EQ/c+jHAYNm4GcDf1AdTWQU8PbQ0NlHd28ZVtf8wzJe5jikMWYZ9Jdcg7dTGzNggWFKCKijF8PmRRMTz9JGrjZsjPB6Xcf2wbLA8o9VLSA0A4PPMRQF14EdJjcdfmq9lduQYZjCIUlOT7ePc5VayMWoiuTigtQw0OzlmRPSXDPk6T5XxumqZp2tlJF8jastBUGmJDdYTWnnGUgpyj2HiSm8fahhK0dsYI73oWISXKMDi8fgs1W9ZysHeUUdvAzGQoyE5SGk+yO1BGZ7icldlRVq+rQn33GzNjnoXPh/3X16OeedpNmdiwkYlshkeuuJzRTVfwTGgTANGAl7DPZEP7Dmp+cR/2VFuDedN2nBs+gxofw9l+E+qGG3E++B6YGIdwhI5v/Yhdh0cp3d86s0Gw1bOJtqHiBVsfVCaD+urf0b7+PHbXbXJbRjpeRHm8xNZuwrBt5Oducleuy8oxb96OqKvXK7KapmmatgS6QNaWhVMxInpgPIMzMUHK4yft9eHPZZATcc45t5bqkjD/80IPnngC2+PliO0BmWOwooGmzuegrxejvmFmzLPTfoiDoxkGVmyiPD5E444dKEfQMV7KvmgTAG/fWM6q8jBliRg1v7gPc1Zbg1KKg46fwfpzKBvuYeWDD7jFcdDNZe7ffQAnYTApPGTyQviyaWRiksGJzMK9wVNtG4N1W5C4PdN43I2FKjnJQFc/ddOtFQMDCMvSxbGmaZqmLZEukLVlY3pEdHNZvpuN29mBOom+1LKwj1FPkExh1VSuMPg8QcrDfkrzffzncz1kA1FQMOLNw5I2RfvboawMKquwe3tQ996D3HIuP0gX0br2amQiySXjz5LpVnxr84fpi5ZjKMmfX1bPFevd1g+Vycee2tAnogU4hUXc+fwArU1XIKXEKFjDeqOIDwbzMJJJiEQoW7uS0aFusgVVKBQiT+DFQ0m+tfDFTbVtlA33YBSsQXk9CNvdpCfygpTXVixqs9vpyBzWOcaapmnaa40ukLVlZynZuFIpuo8kyToSRxgIQAqBIRWOkvSOprCduVPybGHSm1fEapHA7utFvfPtoCSHfvo/tL7pE0Rlhjfs/iUdr2vgp7VX0+cpxyttrn9DAxesfakvWvh8mDdtx77hM6ixUQ5++e9pLT6HSDqO8HhQdo5dew7THiqjqdrC/Mo/YDh+MAxUIACplFskj4+jkpNAeN71TW9ma+ntYcNhxdPdFeQm03gCPpqL8uibdODTN9GYHcWoql7wfp2OzGGdY6xpmqa9FulR09ry09eL6jnsTnrrOTxv5PLRpjfn/eTZXrK2gyNMbNODoRS5nM09z/XRNpREKRBKgXA/KqCzrBE1MID63r+56RnAQLgEmU7xhmd+QcF4jPut83jeswpL2nx+772cH8zOOwcRG3Ezi0tKGRhLIbNZDMsL2SxichIJDAYLIB7HSMQZnMhQGPRSZzlUxIepmxikIDnG0J4Dx7zO6Q18eDwIw0T5fExkFC/0THDv871887HD3NlvoqxjrEIvlDn8cp2OY2qapmnaGaZXkLVlR4byoaPdTZCwLGQoH/M4j28bStDaM05B0MtoMkvOkSgEHmkjs4q+I0nCAY87wlpJTAUSkIZJXnwUSkrg4Qdmjlc2PsQFk60MNJXzf8uvJe0NYCrJH7f9hnUhtXD7wqzkinJnHKMih0zHEZEIKh7HEDZlI71AElVUTHlKYACB4X6Ck2MopcjmF1G+rvm496ZtKMGunnHKwz6SWQ9dsUkyOYnf6ydombT2jNM2lFi4j/l0ZA7rHGNN0zTtNUgXyNqyI17c6/5LVU3GJQAAIABJREFUOALplPvnkkuP+fiB8QxSQcjvxW+ZZB0JUpHx+shPJ5BpH7F4AA8SWxhMN1pYdo4VF23FDG/CefyxmeM1Hulmt7OBHTXrSQs/HgO2rSxh21uvPWb7wnQLhHr6SRq++U+sY5zd+cXI4lIMabCuZy8NyWGoLEfERmiqq2dDGHbiRRZXYWQzbFhXy8r6suPem+lrFUKQyUlQIBBkbEmez4NUHHOj3+nIHNY5xpqmadprkS6QteVn42aIRN3Uh0gUtWoNqqP9mAVYecSHgULF41RYikRa4AgFUhH3hZjIGeRG4hiGQX46ji+bJphLYQaDVHhDqJZVEA6jYiNkfD4eqT+PH9RcjRIGxXkWn3p9DZudI4hczo1b6+wA4OgYNeHzwdbzMe7+CR967qe0rzqH4bdeR8mPfkPDrl9jeExEbT1UVmEIwTXbVrH/dz9jMJ6jLN9Ly5VXnzC1ozziwxCglMLnNWD63z0GSikM4W5WPJbTkTmsc4w1TdO01xpdIGvLjhEO47n7Z7BzB2rVGuTtt7rT4Y6xCawx4mVd23PsckJMei1UqBiPlJhSkvV4MRyHwqFehOFnzB8iPz2J1+9j3eE91N1zNzIUAunw7LnnsGv1On5tnY/CpKUsxE1vasT/hc8in3sGKZU7TS+TAUCcuxXPl++Ycz4qk4G9uzEmJmhKPcKqz12PuOVvUJ3vd79mVlFt+v2svvmzrD6J1dfZedGOdAeqgEE655C13Wl6J5MdrWmapmnafLpA1pYdqRRtKcFA2VrKe2LU9PfNyRg+erXS6O/jgy/8nPasl4drt7CjYjWRyTFiwQIm/PkYKHIei+ojfchoJaWTMS4YehGScf7t/PdR299G7UgXu/KaOOCrIadMXhdy+OvfW4uvp4vc4W6QCqQD42Pg9YJhorq73FHUdfUz463LOvZSG09g5IUgHoedOxAXX4poWbXgtZ7s6uvRedEl+RYCwVB8adnRL9fRo71f6efXNE3TtNNBF8jasjIzLrr7CDI5iREIsG7NVXxwz32Yx9gEpoqKMYuKadq7G4Rg/4o1BLMpAJK+IMrjwUpl6IlWMOEPMejY/Mv6t2EjMJTNW2SCveUrebjpQlCQn05w/R9swO813fHQhUUwMADCcAd95NwUC1FTi6yo5M7Hu2jtGUcqMFSItee9iw89+Z8Y4fyZkdUnfR8mJmam+hnhubFvs/Oip7WUL7Ap7zSb+V5NX7uADdURrr2wVhfJmqZp2quaLpC1ZaVtKEFr9xHCe16YGcG8a/VGut9yESvX1M1rQ1CZjDvKeWIc1qxj5Z/8ORsGvbQ+mcaxJV7HRhiCCV8eY54g0dQEltcka3oxpM1VA4+RbYmwQ60HwMqlSXssHvvWj3jjZz6Gs/0mSMRh9RqQEva/CELA6jWYX/gSbeM5WnvGiQa9biyd47B7xTraYwdpKgosadOanJjAftc7ZsZSe+7+2bwieTmYTg+ZuXaljp+ioWmapmmvEjoHWVtWBsYzyOQkws6BOTVKOZViMFS0cLE5ncNbUgrxOJ78fD5kDfPmvQ+wZriNDz17D9c/eRebBg9QnByjamKQCcMHKN609yHazWp2qQYmCGI49sxhO3KW2wPd34cqLqHNtvidWUJb4QqkMGH0CCI2MpUqoZjMOhxJZEkmUqSk4JGWi2hLGcjenpO/CTt3zBlLzc4dM5+SSnFgMM4jB0Y4MBhHKnWcA51esxM1wP04naKhaZqmaa9megVZe0Udq3VgelxxeTCKkRd0RyjbOZRpIgKBYyczzMrhpbiY3BNPcGf+anav3oaUkv0ljaxT41x8+AVeDJXTGy4j6fXxxqHH2F+xko6iWgAMx0YaJlnDTVyu9mRQ0QJUSSnftxrYXdWIzOUwqrawbugQH/YNQWUVZaNZjkzmyOTSCCBjS/BHeB7Fi81vYsOeca4pGsc8EpvZiHfC0cwbN7sRd1MryNNtGlIpvvdoO61dMaTHi2EYZ7SlYXaixvQK8olSNDRN0zTt1UAXyNor5litA7PHFddWVLLh7X/GTrkR2XMYQ0rWd+6kMbJ2wWNO5/DmdrXS9vkv8fzECzyyOoppBQhlU4SFzW4nytbDPUSKx+muquTS3ifx1HlJyzyElBhS4phzR5EMG0Gc/7OdQ7aP3ZtWEIn1IQAF7N58KV1XraXZ50ORgakCUUqJlBJTScIyR0g5tO7u5MD3/54mM42oqsa8abvbEnKcVI7ZKR6zf5Fo6x1l5zP7iCTHMPx+aFl1RlsaZidqzO5B1ikamqZp2qudLpC1V85CrQMXXzpnXDF9fVxTDQdNg/6HHqUs36Jh4BBG/2VQ3zCz+qqKit3xzpVVKMvirtYYO7e+l66CKhzTAyhiQcWQnaV0fIh7N7+F3oJyzu94lucr1+NIL5OOhSltbI/XLXIBoSRSGHTkvGCaDMggcupzAAK30B+YyNAMDE1kKQha+C2T2FiS8bSNQJGVCrIpZDDCoPDTlGe6q9xTbRviOKkc4BbJXDx3OErf/g5kJoPwelDpFMb4GNKbN28wyAlXqE+RoxM1zkSKhqZpmqadDrpA1l45x2gdmDeuOD9Mwyf+kIZYDAwDLrrYLYSnV5p7eyAWg+JiRGUVHZ++iVYjiiPGcAwDpmblCaWY9PoYD4bJeUw2y/28ULOaUV8UXy6NP5cibfndcxACQzqoqa9t6jsAu3dR3rgRY2r63vQKspFKUXzXP6Nu/izlER+mIcizTMj3Ex9PglL4smmU34/hOJSpNCTSiOpq2Lh5SaOZ5cQEpd/6e4w1b0WlJhCWF6ezE5EXpSxQO/O42avxx1qhPpUWStTQNE3TtFc7XSBrr5hjtQ4cPa5YPf0kxOPYkUIeLV9Nx9b30NQ+xqVWHNXfB3l50NGOqKlB9fXR39WPk4hzJC/K1Gg5EAZKCEDgsW2aRrvJNgbxKZtQOkHG8JCx/BQkxziSF8UxvVPFNUQmx3nnjl8C0HDxOWyoKKO1ze0BzipBBVnkyAiyt4em+oaXBndksviURAlI+4PkKirZWOKj+VNfn9ODLJYymnnnDhoOv8i68jXsLmpAer0YPot1w4dozK4GCt3HzVqNP94KtaZpmqZpx6YLZO0VtVDrAMwdmKE2bsbOj3LjhR+ju6ASRk3uf6idXxYEuLWiErOnB/LDqCNHoLaOkhVl9LeOk/FJN4Jtqkj22DmUz8d53Tv41ZptCAXhZBxpuoNDvE4OAURT44wGCvBIm2B2ktcfegoPEgwDz7vfyzWhfPZ/4Tbujqyi3wozYgT4bsuVbOyBayozXFPhcKh2BQMTGYru+hVqZITh8jqq3nApjcVBjP6+OcXwkkYzb9yMkZ/Ph56+h/aa1Qyu3EBZVw+NYROjqvqlxx29Gr/IFWpN0zRN016iC2Rt2RE+H4+e/xa6C6rw5VIYuTQSQRfw2LXXs82K43zzn1A9hxFC0DuWxnbclgo13f8qBMoQXJx+jn3rV+PgoXx8kIQVQAmTYC6FQjCaF0UBxckjVI/3A7CvchXt7/0Yzde8B7O4BPvGGxCJHKMVUcobazEcB+XzsbMvzv7tt9PUtYf6ikpW3no73PzZmdVhAPvGG447Jvtk7gmr12B0dtBUEWHVZz8504M9+5hHr8afzvYKTdM0TXut0jnI2rIje3t4zijCNgyypg9bmAgUOA7to1mEZaGGhxCVVaiBAdq7hzGkjSVzmNLG49ggHVYPtjHij5LDS8tgG5ccfJyAnSWamiAvM0k0NYE/lyaUTlKQGmMgXMpAuJRJr5/+rIGnqhrZ28PBCYeHa7aQwkTYNgSDCNNEZbMMJnJz2hmEz4eob3AL04XaHZaqrxdiI4i6ehgZQcRGXnqeo8w5B03TNE3TTppeQdaWFSed5t93j/FCQS1SmGS8BhnltkNgGDQUWKhsHErLUP39UFBAbUUBdmcKJdyoNgNJ1cQgu6rWglJs7tvL9Q99h478cn668S1kTc/MhjuvtLFEjkPF9TM9yEIpniso5pJUirt6YGfLlaRsxYgvH2dSsiI4tQnQsigLeVGdIwu3M5yCdofpRAoZykeEI+4vBlXVunVC0zRN004jXSBry4bKZNi//XaeCW9CeIMI4aAMEwTkvD5W5Pu46Ht3YPf3QXEJIhJBjY8hf34vlJw3fRS2yr2IKPSpCl5/6Gn+9JF/x4Okr64a2/RMvW2iEAp3ddorsA0TQ7kZFoaAQwMTPHDbt2hdfTnRumqizz+HLSWjSmKaBkGfl40rorT83g3zeoynvdx2h5lEir5eGBmBggIoLMK8abteHdY0TdO000gXyNry0dfLQCJHNmKgEORnk+RML1nTS9Dy8O56H+Z9bstCrqeHR8vX0r76Ig4TwMDBk80QcLIcClZjKZvLDzzOJ5/5CYZ0R0h3FK3AlA6Wk0MKgVKQ9lggJZay3ZHJSgHuJr72nIXMZjGyWaRjsyIxgkc6vK7Mw+WXtbyU+XucDXdL2pA3636o/j5EMIiaGIeaGhgfd3uPpxJApFK0DSUYGM9QHtE5xJqmaZp2KugCWTvjZg//KA95sZR0e47Bba1QEM73UVEcAcMg19bGja+/ju68ElBqpjWimAl6g+UAXLn3QVaFBYb50qa9htEehGEglMDBwDY9IAwc04ucPhkDQDApHeo8GQ5YFsrnB9ODsnMEZI7Lzls5k/t7WodyTLdo9Pa4udGJpJulPNVeIZXie493zZtkd6ZGT2uapmnaa4UukLUz6ujBFs2fv4Utv2rl4a44KSsAQDCXYssT/031XY/wm8KV/Py8d9IXKsPj5DCVxLQVK60+yvyjDMsC3vbC/Ry66Cr+6K0t8OQvpnKRBRf7EtxXGKBzRGIb7rS9YC6FN5dhPK9gavXY7UF2hIFSivUVIbcAtfIwPA7revfRELp8wXM/1UM5pls0ZG8PbeQx0B+joraCJstCAG1DCVp7xokGvQghUEqd0dHTmqZpmvZaoQtk7cyaaiOgoADV0YE50M817Q9zwQOPs6tqDQDre/dRN9LNjW+/gY7iWpRwV4xzHh85pbCcHPuMOgZlAdc+/p+Egj4+eGklxp5dOMkkmKabi9zXy5fFAb5zsIsn615HYXKMgslRDhXXueci3P9RQMb0ck94NRcl4lxHN4M7f0XZ5CgNg+2I366E93/wpIZyLHWlWVkWd/abtPYMuqvEh7vZEO7mmm2rGBjPIBVuawjuR6mYN3pa0zRN07STowtk7cyqrILSMnj2GQCcb38D8YlP0fyTH9I80jnzsAebLqCrcMVMcQzgwaZODNDmrcays7z/4Xu4uOMZKC7GCEdwfnYvSAmOAwiIxzF+9yBvONjHoeJaIqkJJq0Aaa87btqQCmkwM4wvICStccGFW87hon+4BbJZEAL5+KOod75r0SkVL2elec4qsVLIF/exU5rs/93PKP/Un2EIUErNrCAbAsrCegOfpmmapr0cukA+w87mTVZSKdrGsvS+4+Nks/l4w2HKY720eL04n/gUfPsbM49tL6lDHnVfKojRaPQRzwT4wKN34zENCAQhEkG8uBdGhpHnXUB7LM1AfjHlUT8N+3dQMz5IOBWnrbge2zCxTXPWkBH3OQwkZiSCQjBsBmj65neRn/ss1NZB7IibeVzfsLiUipcx/nnOKnEqBek0MhhhMJ7jkuzozJjr2T3ITaWhpXw7NE3TNE2bogvkM+hs3mQ1+9qHx1OkVr4Jv5OluHgdm3rgQ3/wHtR3vz21+gt1qeGpMdIuoRSHjTLsScHHH/4+v9hyNR949qdgmogVtahoAbK0jLusRnbX1SOFwMikWbO+kr3nFNMdLsM2THdFeuqwppQ4CATgdWyscAE27oqsWbMetXbdvNXiRaVUVFYhyspR3V2ImtqTyjAuj/heWiX2+8Hvx8jZlOV7Maqqubbeom0oweBEhrLw2fULlqZpmqadLrpAPoPO5k1W09fukTa5RAKfk8M2vFgVZbT2JzhUatFgmm6B7PFQlW/hsXPgFaw3OtmnaomMT/DHj3yPeze9mbr+Nhp6D0A0gnJsnNu+RHtVC7uL6omkxhHJJAp4MlrNWDCK187iGB5QDkqYGEriCAMDBYaBLxAkh8HGqRVZIcTLyzSe2gA4/XGxmkpDc1aJRU0TG8PQsu3N7sQ8oLks/zX/etE0TdO0V5IukM+gs3mT1fS1Z8bi5AwPtuFBKcXEaBI7ZPDCE7uoy9kYXi/YNsNHJgmsyCAtLxESNEx08+EHfsx/r72C1x96movbnsIwDUhOQlcXoq6egXgOWeBMLxCTsgLEfSGkMFBT0XAmYCsITyYQBqwebGPLxZvwrWmmIuKfaVc4MBifaoMpmUmRWLS+XhgadEdjDw7Oa7E4XpuNIQTXXlirV4k1TdM07RWkC+QzaM7b52fZJqvyiA8hoFdZ5MyXVlX7lMCbzPBwXgmJ897Nh576T5TX4t5NVzERiAAw2B/i47+7i9ve+KckfUF6C6s4XFjFh569FyMSgfoG1PAw5TUlGF4vKiXpjVQw4Q+RM704hkFOuS99idu5EbaTeG2bdxx+mlXbPoIxaxDH8dpgVCaD6uxAZbMIy0LU1c9fXT7OZr7FtNkYQuhVYk3TNE17BekC+Qw6+u3zs2mTVVNpiGjAw6HpChUFClCKQDZDWWU+uy++mvaLN/Bz/wpWDDyDrSTl3f185Mn/4EtXfpojeVEsx8ZCsvv8q+h8x2U0X3yOW6D29dJcWMS6f/gJz3oLGA1GMKVDYWqMhDdIygogUChMLGlj1taxwUrT/JdfnymO4fhtMCujFvZfX496+ilIpyAQQJx7Hp4v3zGnSD7eyOmzuc1G0zRN05YrXSCfQWfz2+eGEJSH/XiMcbymge1Ico5EAD47zWQyTSytuMNcwZHRNBtFgOaeNt792L1sf/P/YjC/GL+dRgnIChOkZLh5A6umi9v6BsyOdj707H8RLFzHb5pfT9HkKMFsCgUcjlZRPdbPyiNdVHkdVlz3hzRtOmfevT9eG8zKyWFUdxdIZypOTrp/XiCl4lib+c7mNhtN0zRNW66MEz9EO52m3z6/eGUxzWX5r9niWGUyqI52d2DGlKayEIYw8BoC33SYhIKMx8/+0RyTqUmOJNJIDCp3dfG+h/+LL775fzEQKQchSHv8oMDCQeQFKQsYc5+jsgqzoZFN/S8SziQIZtMIrxcBRDJx3v/8z3jfvvu5JJBi5Zq6l1omZh1jdhsMUqKSSQTKbYOprHJTKQwTDANM45gpFQtd/7zjw1nVZqNpmqZpy5VeQdZOu2MNyrispYRf7uyna2gCpSQGBoaSJKfSJc4z9pIgyKpn9rBt/6N84S1/RX+k/KUDC4FjmmTz8tlQlkf2G//Ig4kc5SEvLTfdgOn347n9K6zc/yLrW2PsshtRloXIpFmfO0LjFz+Hp7CQ6b7hhc5zug1m5+ExZG8vRi7LemeUxt9b5bZOfPmOE/YgH29QyNncZqNpmqZpy5UukLUlW/T45KPGSavODkTLKjyGwW0bLR78x1/REa2itnM3PQ3r+UXpBqQwaVeVXNH6MJe8+Dg3v/Wv6I1WzHpyd8W1IjvBH7X9hqeqC/hueD2ywIuRy7Lh/r185OrNGD4f3g0b+eh6NaeVpTHixejvm3vuswd69PYgH3sUUVXNNVvqOBTM0Pv4E5T5BA29+zH6L4P6BjdqrWXV8W9UXy+qtwfy8lA9PXNaMBbbZrPUUdWapmmapp08XSBrS3JS45MXGif95Tvcz33zn7j86d9xuZT0F1RyzzlvJWSkSDp+3vvwvazr28fNb/4reqKVc485VT9ubXsWo7CQ3SqPqBiAIzGUgNb9Fm2b62iuLgTmJkFMn7tz9LlPp0309sDIMM7NNwICce5Wmr7wJeqtBKr3+GOlF7xXRcUQi0FHO4QjqKLiOTFxJ0qpeDmjqjVN0zRNO3m6QNaW5iTGJwufD88f/wn2jTcgyitQAwPu46eOg89Pe7SSL237FC2+boKkuej+R2ga7uQLb/kMhwsrFzoqvmyKtx9+mvt+/zYmhhy8VbUEUymE34e0Hfo7+8HrnckXbijJo304Sd/BLjK5CJ66CiqGe2jp7cFsaJxJm1BPP4n91b+DVBpQ7gS82MiSB4WI2AgUFyNqatwe5tgIzErKOJX3WtM0TdO0l08XyNrSHCfbd9qctoC6ekRN7fxxy5VV7Mn5ue3S65i0AhzKVPKJx++kZegQt1z5aQbCJfhyaTIeHwYKj2OTMzwIoGhyjFsu/xSpYZuxZI64IQhHyqmKD2Hk5fFswqTnoXY3JQKFYQikIxkeT5Fu2EbAzlJcuJaNPXBtvcIQwi18t54PtXUwPAwwc74nGit9zDaIyip3SEhfH6Kq+qRWnxd7rzVN0zRNO3V0gawtyfGyfWF+W4B50/YFxy0/E6rmm5e/nTLPKOOTaT73y6+yIjHELza/mVi0DOXxggDLNPFm0uSEwG9nCacT5GeSdOTXUDfQgy18xK0go/58vNEITRURDo+lKcizEEKQSOc4NJykIhnDNvz4HIecZeEtL6a1PzEnd1j4fHhv+ztUZ4f754WGfxzleG0QJ7pXL/dea5qmaZp2aukCWVuyY62oSqU4sKeD50UVNDWzoX8fq17YMW/c8gM9Kf5vxSU0GT3UqgHe8utfUJMZ5dn1lzJY08IbBnfhe8MVmEVFrBNxdvx/9u47OqpiD+D49+5u6qb3QBoQkhBCC71KFwUBBRVEpUjvD1EQkCZVlN5L6KAgHQTpvRfpJJSEkJAA6b1s9r4/FlaWJBAQJMB8zsnxZXbm7tz1nucvszO/38qN7HEKwCElFvOsdOLMbQDI1uTgpkghNSWVOBd36pUpirOlCeHn7urzCydlaMjRyiRhhIyEVqFAg4LktCxMzExy5R0u0OG7xz1jG8SzVp+f5d+OFwRBEASh4ESALLxUWllmyZEw9gUnkeZeFbRattv6UlfjwpeuReDuXSQXFzZdT2JRSBpICrIfaGl+aDOu8Q+Y1XYYh01cdYU3LMHjxn3G22Vi7OMHJpmcykzFLCsdABNNFgDGKiVkZKA2MSFbJVHexRyMjPT5hSPi04lPzSRHlkk2MiPnUYYISSImQ4uZNhsny3+5KvvENgjZ3kF3KO85VnxFpgpBEARBKBxEgCy8VDfup3AqLJ4sjRZTbTZotWQqjTh9N4Xa/YdTIuUey9ce4q+QGCpLt8mINea7bVNR52RypkwdDpu4YqLNRpGdjRaZcNmUAxPnUc/VCJ8xEyl78CYXYrPQarUotDl4qtVkY0N8VhbSg/sEXDuO58XVqMZMoKybNSfD4olLzUKRno65rEWjUKIxMkUClApQKhWAjIz8rFt7qse3Qcj2DuSMHv5cWSdEpgpBEARBKDxEgPwW0Mq6HL+PsjW8znLV0YmZZOXIoJWRtFpdhTlZJiszm6i0HHaFZLDDNgB7ErHVJNFq3zrUShmKevK3dyXQalHk5ACyvsxjqIMn9W4cRIqNoUZlb9R3kkCSKe9mQwknXWaK6BvhOBxZQTHTHG5mKLl/+iZudg7cS8ogNSkVp/hIzLVZ3DOzI9rGGXsLEyzNjDBRKcjIyuFBchZ+Lk+7s2fTb4MIvfX8WSdEpgpBEARBKDREgPyG08oyS4/ezlWJrX0Nz9cSJLtYm2CslEAhISuVkJMDSiVGSgU7jwZzKQVAQZkbV+h4aCnGRiqUP08hZ/UKit8PBWtvtLIChTYH7cNrFou5jdbFhRW3NVy8dwttVhYKY2PSMnMo6WxBSRtjvB2UZKlhhYkvlzxLEHMtlfTsZIyVEplaBUZqG9TxUVhq0olRKnCwMMbCWImcnk6WpPrXpZ0f3x7xQlknRKYKQRAEQSg0RID8hrtxP4ULEYnYmBshSRKyLHMhItEgK8N/ydvJgspetuwLfkCasRnIMmYqBakP4kg0U/GedBXzqCw67A9CYWKC8tfpaDf8AYkJ1LHUsiMjnnBjK1ApAXBKfoASmQMaa86fCcEmJwMpMxPZ1JQT2cUwV0KZzUspfvsytzz8uexXDWMzE7ITMjFVSWjS0rHIziDBxBKVZTamcg6eNiZkaXKIuX3HoHT0i8pre8TzZp0QmSoEQRAEofAQAfIbLjoxU5fn9+FqsSRJaGVyZWV42eTMzDzToCkkiQ41vajhbc+FiCQysjTsOB9JspkVKjSYJabS6sAGFCbGKH+ZgqTNQY6MQHJ0Qnk3krFRczlkUYxbVi5EWTmRYGbJ5oBGpJmYky6ZYJMeD6amRErmxCdnsvNyNMesylDGtwheD26jBTIzskCWkdAd0rPRpGOWkUqF6GDq3DqBd50BhFm55Fk6+oXksT1CKlb8ua8nMlUIgiAIQuEgAuQ3nIu1iT5bw6MVZIXEv94y8DRyZiaaH75DPnVSV/K5YmWMJvxiECT7uVjhYGHC4PWXyMnJQJJN+PzUJj65sJ1shYroYWNx3bQB+W4kxMYiy7qCHCqNhnpnz+Buas/8mu2wTU9CQpexIl5tQ6raCikrm2Qzc5QKCQcrM8xitVw0csDNNhnpwX2MsjJA7YhsbookSRhrslBka6hz7TDeceEovEtQ0sHxhUtH5yK2RwiCIAjCW0UEyG84bycLyrpZ59qD7O1k8ere9G4kcvhtkGXdT3h4rkNlkfHp/Lj5MknJKdSWLmEbHccnF7ajUShZWqsdpVXWuETdRXJwRJZlVD37IFWpBoD2yCGi1+xEa2aOlJEM5mrUWi1mJsYkWLshazRosmTszI1RmxmDXynkhFRMPIoR8NcBLtkXwygnm3SNMWZqc7KNnXAPOUeUkwcYG+Fz8yZSUbeXtqVBbI8QBEEQhLeLCJDfcApJon0NT27cT+FeUibOVv9BFosiRZHc3JGjonQRuYeHwarpjfspjNxyhcR0DcZKE1yvR9HwxB5yFErWVf2EEM/SNAjwQTpYRLe9wsYWylX4ZwW6Zm0w9v6TAAAgAElEQVRcdh9BIcvIRsZIEqBW42BtSrPSTsRGxbD/vgYXazMAZElCYWJCEW93qm8N5WbIDaJdvNA2aoPK2IgzNx8QHuNGuE0RFAoFZXNc6CDLKAqwpaGguYnF9ghBEARBeHuIAPktoJAkfJwt/9NDebIkgbMzODqhGjVWHzxejEjkp23XMMlOwNHYhG9PrKHkmf3kKJQsb9mXK8XKUc7TnpLFnGH4aDSDvkVOiCdn9HCkh7l/JRMTfIcPotzea5xP1CJna5CMjSlXxJLaSychR90lxb8JF0sEIiP9s2pe1BZp7ERK3Y2k1MOANuReMpuSNdgF+CElJyFbWnHxfkaBDjGK3MSCIAiC8G4SAbLw/O5G6spGu7kjx8QgxcaAlRXHb8Xx81/BaHJyqKa8QdG4OEqe2Q9KJbFDxlKqbA3qPrbCLcfGQFIikqNTrty/SlNT2n9QzmBlvETqfXKi7qKwd6Dd5R2Ef1iTexb2hqvmT6zk6g8xGhmBnT0SoM3MKtghRpGbWBAEQRDeSSJAFp5fHofSdl+9z4y9N9DKUNTKlA+OX8H13HFQKlGNn4Rb4ya4PXYJOTMTOSsLnJyR793TX+fxLQ0KExODlXE50xitaxHkiAgUtrZ4l3DFx8rqqVP9V4cYxeE7QRAEQXgnSbL870rsvmG8gNDY2BS02nfnvh0dLXnwIPmlXvPxQHbjlRiCjtzGnkS8LHLofXAdVmdPgEKBctzPKJt8mGusfuuCswvKbj2RvIoBPHNLgzYpiZxB3yInJiAVKfrMbQ//tpBKQfcgvy1exbMivH3EcyIUlHhWhIJ6Xc+Ko6NlnsGAWEEWXohkYoLsVYxlx8L542wkAAFmcRSJCUP99ymQJBQ/jedmhdpEh8QYlsB+fOtCdDSSsbHuegUo0SzFxiAnJeqyXxRg28O/PcT4ug7fFaby4YIgCILwrhEBsvBCcrQys/ffZOeV+4BMNU8bum7cBZfOo5RlFCPHsNymDBf238q1civlt3Uhj/ZcK7gvsO3hdRxi/DcKW/lwQRAEQXjXiABZeG7ZOVp+2RnC0ZtxOBJPoEUs7Tfvw+TMSQCUI3/iZrWGXNh/K98S2HnlDX4ynzDkveXibc85XNjKhwuCIAjCu0bxuicgvFnSsnIYteUqR2/GAVDdQ43zg3A4fw4A5Y+jULZs9dQS2KALhqVixXMFuAbteWWReMrYZ5EzM3XbODIzX+j1/4r+s5NlSEtDkmWDz66gCsv9CIIgCMKbRqwgCwWWmJ7NyC1XuHE/FRUa2lX2oEXQT+ScPI5CllEOHY6y1afASyqB/RKzSDwrp3FhynnsYm2CAhnttauQkQGmpkge3s/12RWm+xEEQRCEN40IkIUCeZCcyfDNV4iIT8dJiqeyUSg1f1uDfOIYCkA5eBjKT9vo+7+MEtgvdTvFs3IaF6Kcx95OFpS1gvNaJVpzaxTZGspZ8XzlwwvR/QiCILyJevfuyt9/n8XVtShr127Ks8/hwwcYPPhbALZv34elpeE2uHv3ovn00+YolUrWrduKnZ19vu/zNOvXb8PJyfm55n/kyCGCguYTFnYLa2sbmjRpSseOXTAyMnrquKSkJObOncGRIwdJTU3Fz8+fnj374u8fAEBU1F0+/bR5vuNdXYuwdu1mAOLiYpk7dyZHjx4mIyOdEiVK8tVXHahV6z2DMadOHWf58iAuXbqMubk5VatWo0uXXri4uBj0O3fuDIsWzePatSuYmppSvnwgPXr0pWhRN142ESALz3QnPo3hm64Qk5KFSiHxVU1/sradxPLwIQCU3/+Ass0XBmNeVgnsl5ZF4lmr0YUo57FCkvi6vh/BhzdxLzkbZ0sjfOt/oCuuUtC0c4XofgRBEN5UCoWCqKhILl26SEBAmVyv79y546njt27dhLOzC0lJiWzevIEOHTrn2c/NzYNhw0blex1bW7vnmvexY4f54Ydvadz4A7p27Ulw8FWCguYTFxfL4ME/5jtOq9UyaFB/IiMj6d69N5aWlqxcuYx+/XqwaNFyPDy8sLd3YO7cxbnGHjlykOXLF/PJJ58BkJqaQo8e35CQEE/79t/g4+PHpUsXGDlyKH37fkvz5h8/HHeIH374Fn9/f4YOHYm5uRmbNq2na9f2LFq0HEdHJwBOnTrBwIF9qV69JuPG/UJCQgILF86hf/9eLF26GnNz8+f6jJ5FBMjCU12/l8KILVdIztDgqEqjz/vlCJgyAvngfgCU336P8ouv8hxbmLJHPGs1urAd/lOamlJqxGBKPTaf59k2UdjuRxAE4U3k6elFfHwcu3f/lStATktL5ciRg/j4+BESci3XWK1Wy7Ztm6lTpx6pqSls2rSeL7/sgEqVO/QyNTXNMwB/UXPmzKBcuQr6oLtq1eqYmpoyY8YU2rVrj7u7R57jDhzYy8WLF5gxYx4VKlQEoHLlarRp8zFLlixi+PCfMDY2zjXX6OhoNm5cR4MGjWjb9ksAtm3bTGRkBBMmTKZWrToAVKpUBbXagpkzp9KgQSPUagsWLJiDo6MTy5YtIy1N+3C+NejatQPz5s3S38O0ab9Qvnwg48f/qj/fVLSoG0OGDOTy5QtUrlztpX1+IA7pCU9xPiKRoRsvkZyhoYhxOpW0F1EumfxPcNz/W5RfdXitc3wezzrc96KH/16VXPPJ59BigccLgiAIz0WpVFG3bkP27duFVqs1eO3AgX2YmppStWr1PMceP36U+/fvUatWHT74oBkPHtzn4MP/fr6oqKi71KpVibFjR+bbJzo6mlu3blKvXkOD9gYNGiPLMkeOHMx37LFjR7C1tdMHx6AL3mvWrM2RIwfJr7jctGmTUCgk+vf/Xt8WGhqKSqWievWaBn0rVqxEWloqZ8+eBiAs7BYVK1ZGrVbr+ygUCsqXD+TIEd031TduXCcsLJTWrT/XB8cApUsHsGnTjpceHIMIkIV8HL0Zy8jNV0jP1uJgYczQlpWoEROL99atACj7/g9lh29e7yTfNY+2TcTEiG0TgiAI/5FGjZoQGxvLuXNnDNp37txO/fqN81wRBtiyZQOurkWoWLEyFSpUxM3Ng/Xr1+T7PhqNJs+fxwPzR9sb8tuqAbqAE8DDw9Og3d7eATMzc27fDnvK2NA8V5fd3DxITU0lJuZBrtdOnz7JoUMH6NKlJ7a2tvp2W1tbNBoNDx7cN+h/584dAO4+XOSxtbUjKupurutGRISTnJxEUlIS168HA2BtbcOIEUNo1KgODRrU5IcfBhIdHZ3v/fwbIkAWcvnr8j0m7ghGo5UprU5m1PueFJk0Ev/161Hl5KDs1Rdlpy6ve5rvnEfbJozGThBZKQRBEP4jZcuWw8XFld27/9K3xcbGcPbsad5//4M8x8TExHD06GGaNm2OJElIksRHH7Xg77/PcvPmjVz9b9wIoW7dann+jBkzQt/v0faGpx1KS0nRlWu2sMh9sFutVpOamvrUsfmNA/Icu3z5YlxcXGnWrIVBe5MmH2JsbMyPPw7i6tXLpKamcPr0SebMmYEkSaSnpwPQrFkLzp07w88//8yDB/eJj49nxYolnDx5AoCMjHTi4mIBGDFiCGq1mvHjf2HAgEFcuXKR3r27kJz88ktUiz3IgoF1ZyNZcvQ2AH4OxhRPCiF02Qlcdun+j0HRrSfKLt3zHFvgA2SF0Jsy99dV+loQBOFdJUkSDRo0ZsuWjXz77WBUKhV79uzExcWVgICynDhxLNeYbds2odVqqVOnnj54q127LvPnz2bdut/5/vuhBv3d3T0YMWJMnu9vZWX9XPPVah9tg8j7UPzTzsrrxubfQXpi8M2bNzhz5hT/+9/3uVbSPTy8+OWX6UyaNI4uXdoD4OTkTL9+3zJs2CBMTU0B6NChM5IksWLFUhYtWgRAtWo1+PrrjixcOBdTU1Oys7MBKFeugsFn5+bmQa9endmyZSNf5HMe6kWJAFkAdPmKlxy9zfpzuq85yrtbM7hxSZInrMdq6xYAFF26o+zeK+/xb3De3Td57oIgCMKr16hRE1auXMqJE8eoWbM2O3fuoHHjvFePZVlm69bNyLLM119/nuv1nTu306NHX4OUcCYmpvj5+b+UuVpa6laA09Jyr/ampqZiYZH/wXlLS4t8x0HuVem9e3dhZGREo0bv53m9wMBKrF69nvv375GRkY6bmweRkRHIsqwP/JVKJZ06dWXAgL6cP38NS0tL7OzsmTdvFkqlErXaArVa9761axumhytXrjwWFhYEB1/N955elAiQBXK0MrP23WTXVd0+obqOyTTzs8Vk7AiMtupyPyo6dUbZs0+uvx71ClneXa0sc+N+CtGJmbhYPyPFXCGbuyAIglC4eHuXpHjxEuzZsxN3dw+uXbuS74rvqVMniIqKpGvXngQElDV47caN60yf/it//rmZzz9v90rm6uHhBcCdO+EEBlbSt8fGxpCenoaXV/7/ffPw8OL06ZO52iMiwrGyss6Vx/nw4QNUrlwtz1Xu+/fvcerUCerVa2CQw/lRMOvnVwqAv/8+S0pKCh9/3BRPT6/H+l3D29sHpVKp30+dlZWV631ycnL0q9Evk9iD/I7L0miZsCNYHxy/7++IlyqO0G0byXkUHH/dEWWf/+UfHEOhOkCmlWWWHr3NnP23WHc2kjn7b7H06G20+Zy+LUxzFwRBEAqnhg3f5/Dhg2zbtplSpUrnmypt8+YNmJmZ89lnXxAYWMngp1Wrz7C3d2DDhj/yzQjxbxUt6oa7uwf79u02aN+zZyeSJFG1av4ZH6pVq0FsbAznz/+tb8vIyODIkUNUrVrdIA5ITU3h1q2blC9fIc9rJSUlMX78aA4/rJkAuoOIa9f+hoeHJ8WKlQDg0KH9jB07krS0NH2/69eDOXPmJO+9Vw+A8uUroFar+euvPw3e4+TJ46Snp1O+fOCzPpbnJlaQ32FpWRrGbLvGxcgkAFoHFuGrqu5kjFuBYv0fSIDiy/Yo/zfw6cExhSvv7o37KVyISMTG3Ehf5vpCRCI37qfkmZO5MM1dEARBKJwaNWrC/PmzWbNmFb169cuzT3x8PIcPH6Bhw/fzXNVUKpU0adKUlSuXcvz4UX0KtIyMDC5dupjvexct6oatrS1ZWVmEhARja2v71IN6nTv3YMSIHxgxYghNmjTlxo0QFi2aR9OmzfUrzIA+f7OPjx8A9eo1ZOXKZQwdOpBu3XpjY2PDqlXLSE1NpX17w8xVN25cR5ZlfaD7JG/vklSsWIWZM6eg1eZgZ2fPmjWrCAm5xs8/T9XHFS1afMLGjevo168fH3/8GbGxscyePR1PTy8++0xXhMzExJQePfryyy/jGTHiB5o1a0FUVBTz58/Cx8eXhg3z3uLxb4gA+R2VkJbFyC1XuflAt6/oM680nJIvopmwFNW6tQAo2n6J8tvvnxkcP1JYDpBFJ2ailf85TCBJEloZ7iVl5lu0pLDMXRAEQSicXF2LUKZMWa5cuUyDBo3z7LN9+xY0Gk2+2S0AmjZtzsqVS1m/fo0+QI6ICKd79475jhk0aBgffdSS2NgYunfvyAcfNGPo0JH59m/QoBFabQ7Lly9myJCB2NnZ88UXX9OpU1eDfkOGfAfAH3/ozhqpVCqmTJnJzJlTmD17OhqNBj+/UkydOhsvr2IGY2NjdZklLC2t8p3H6NHjmD17OrNnTyczMwM/P3+mTp1NuXL/rDp7eHgxefJMFi6czZAh32FhYUmdOvXo0qW7wR8ZLVu2wtramhUrljJo0ADUagvq1KlHjx59n1k++0VIr2qJv5DyAkJjY1MeO+X59nN0tOTBg39SoNxPymD45itEJmSgkKBPfW8cMsO5d2Av7y1ZikKWUXzWFuUPwwocHBcmIfeSmbP/lsEKckJaNj3qFi8UVf0KsyefFUHIi3hOhIISz4pQUK/rWXF0tMwz0BEryO+Y8Lg0hm+6QmxqFkZKiQH1PKnp60jOpEWUWrVct62i9WcoBw99I4NjAG8nC8q6WXMhIhGtDAoJyrpZ4+2UO7ejIAiCIAjCk0SA/A4JuZfMyC1XSc7QYGakpKNfNjeObybgzyTMHwXHH7dGOWQ4kuLNPb+pkCTa1/Dkxv0U7iVl4mz1jCwWgiAIgiAIjxEB8jviXHgC47ZfIyNbi7WZipEf+WOnyuDKhROYLl8KgKJ5S5Q/jnyjg+NHFJKEj7Ol2FIhCIIgCMJzEwHyO2Dv5WhGb72KRivjZGFMv+q2lHBUkzNjAVWCdFVrFM2aoxzx01sRHAuCIAiCIPwbrzVA9vX1VQEHgFPBwcH9n9H3U2BNHi/dDg4O9noF03sr7LgUzewDt5BlcLcz45sAJYf3bMJ6jxLXoAUAKJo0RTlqLJJS+ZpnKwiCIAivxtixI9m+fWuudmNjE+zs7Khcuao+tRnA2bOn6du3OwBDh47kgw+a5XndTp3aERISzKeftqVfv2/17VevXmblymVcuPA3SUmJWFhY4u9fmtat21Clyj+5iB9/n/w0a9aCwYN/fK77TUpKYu7cGRw5cpDU1FT8/Pzp2bMv/v4BBb5GWloqHTu2o1Wrz/Qp1/Jy7dpVunfvSFDQCooX9zZ4LSTkGvPmzebyZV0au0qVqtC9e2/c3Nz1fWJjY6hVqxJ5Wb9+G05OzvTo8Q0XL57Pdw6zZy+kbNnyBb63Z3ltAbKvr68aWAHUAE4VYEgg8ABo/kR75kue2ltBlmXWnolk+fFwAHydLRjerBRqYwWmRw/gMncOAIr3P0A5ZrwIjgVBEIS3npmZOVOmzDJoS05O5MSJY/zxx++Ehd1izpwgg9cVCgW7dv2VZ4AcFhZKSEhwrvazZ08zYEBvKleuSv/+32Fra0t8fDzbtm1mwIDe+rRtj+vRow/lyuVd8MLW1va57lOr1TJoUH8iIyPp3r03lpaWrFy5jH79erBo0XKDXMj5SUhI4IcfBhAZGfHUfteuXWHgwH5oNJpcr4WHh9GnTzeKF/fmxx9Hk5OTw+LF8+nR4xuWLl2tr8wXHKzLxzx27CTs7R0MrmFrawfA998P1Ze8fiQ5OYnhw3+gWLHiL61U9yOvJUD29fVtCkwG7J/V9zGBwLng4ODjr2ZWbw+tLBN0OIxN56MAqFrcjiYuKZgqZVi8kJIPg2OpYWOUYyciqcROG0EQBOHtp1QqCAgok6u9evVaxMfHsWfPLkJDb1Hssbz4ZcuW58yZk8THx+cKVHfu3I6Pj5++4MYjS5cG4e7uwcSJU1A8tnWxbt369OrVhTlzZtCsWQuDbFHu7p55zu1FHDiwl4sXLzBjxjwqVKgIQOXK1WjT5mOWLFnE8OE/5TtWq9Wye/dfzJo1DY0mO99+aWmprF69ghUrlmBubp5nn99+W4ksw6RJ07Cw0GWSKlasOG3bfsJff22nbdsvAd0qs7m5ObVrv2fweT2uWB61CgYPHoCJiTHjx/+CsbFxvnN9Ef/5hlNfX18bYAtwHnietfAKwN/P7PWOy9HKTNtzQx8c1/K2Z2CDIpw6cYirSxeSM3MaAFL9hqjGTxLBsSAIgiAAFha6Q91PBmgNG+qKguzfvyfXmF27/sqzKEhcXAyyTK5y0gqFgq5de/Lllx3Iysp6oXmOHTuSWrUqERV1N98+x44dwdbWTh8cA5iamlKzZm2OHDn41DLXN29eZ9y4UdSqVSfXavvjNm5cz/r1a+jevTddu/bKs0+nTl2ZPn2uPjgG9EU9srP/uf/g4Gv4+vrmGxznZd++3Rw+fJBevfrnWnV+GV5HdJQGlA4ODr4K4Ovr+8wBvr6+7oAjUNLX1/c8UAqIAZYAI4ODg1/sKXvLZGpymPRXCCdC4wH4IMCZbnWK4+JsRStTC6ynTQFAqlsP1cRfkF5B5RlBEARBKMye3AqQmJjA4cMH2b59K2XLlsfDw9PgdTs7B8qXr8ju3X/x8cet9e0XL57n/v1oGjZ8nxkzphiMqVXrPZYvX0z37p1o0qQpFSoEUqxYCSRJokKFigaB6yOyrM1zmwLoKtw90qFDZ1q0aPXUoDAsLBR3d49c7W5uHqSmphIT8wBHR6c8xzo7u/DbbxtxcXF5ahBep05dPv64NWZmZmzZsjHPPg4Ojjg4OAKQmZlJaOhNZsyYgqWlFY0b//OHRUjINVxdXejXrweXL19EqVRSo0Zt+vT5n34bxuOys7OZOXMqZcuWz3dv+L/1nwfID4PZq8857NGmHB9gJBALvA98B/gCrZ7nYvb2b1/BiJSMbIavOse527rguGOdYnhk3SQzw5aUBWuweRgcmzRogP2CebrSyoKQB0dHkRpPeDbxnAgFVVieFVNTI1JSUqhbt1qu1xwcHPj000/p168f1ta60sk2NrptA9bWZnzySQuGDRtGTk4qLi4uABw6tIfq1avj56crwWxmZqS/18GDB6JQaFm1ahVTplwGwMrKiqpVq9KqVSvq1aunf+9H7zN06Pf5zn3nzp14euoCd0fHUs+81/T0VDw9PXN99i4uumDTxCT/fy+Pt2dmqgFQq01y9Xd0/GfPr6WlriS0ra063+u+/35rwsLCUCqVjBo1ijJlfACIj4/n3r1o0tPT+PbbbxkwoD9Xr15l5syZ9OnTlfXr1xusQAOsW7eOe/eimThxwit7vt6U79ePAs2Ao8HBwfEP2/b5+vqmAyN9fX2rBAcHnyzoxd62UtPxaVmM3HyVWzG6zetdanvR2MeW9etvIF+4TLnpD7dV1KyFdtwvxCRlAWLRXchNlIUVCkI8J0JBFaZnJSMjGzMzc2bMmPvw9ww2bFjL4cMH6dy5O82atSQrC/18ExLSAEhMTKdixZoYGRmxZs0G2rb9Eo1Gw59//knv3v/T909Pzza41y5d+vD5519z/Pgxzp07w4UL59i1axe7du3i/fc/YNiw0UiSpH+fXr36U6FC3of0VCqL5/ocs7NzyMrKyTUmOTkDgPj4tAJdLy5OF1ekpmY+tf8/103Nt1+/fgMBiV27djBs2DAiI+/Rrl17MjNzmDJlFv7+3qjVugDe09MXB4ci9O/fk8WLl9OmzZcG1woKWkLp0mXw9g74189XfgH2GxEgBwcHPwC25fHSZnQryhWAAgfIb5N7SRn8uOkKUYkZKCToW7849f2ckSSJjxVGKKb/DIBUrQaqyTPEyrEgCILwzlIqFQbZDsqXD2TYsO+ZMGEMSqUq36/rLSwsqFatJrt3/0Xbtl9y8uRxMjIyqFOnXp79H7GysqZx4yY0btwEgIiIO/zyy3j++ms7DRu+T/XqtfR9ixZ1e2mZGCwtLUhLS83V/igLxJMrsv+FypWrPfxnVeLj41iyZCFt2nyJiYkJlStXzfXHVMWKlTEzM+f6dcMsIeHhYdy4EcLAgYNf6XzfiKoQvr6+tXx9fbvm8ZLpw38++C/nU1jcjk3l+3WXiErMwFipYOiHPmgjznL48D40a39HOWEsEmBSsyaqqTNFcCwIgiAIT/j++6HY2toxefLEp6Y0a9TofYKDr3LnTjg7d26ndu26eWZvuHz5Es2bv8++fbtzvebm5s733w8FIDT01su7iSd4eHhx5054rvaIiHCsrKzz3Nf7Khw7dpiTJ3MnH/Pz8yc9PZ3k5GTu3Aln48Z1xMbGGvTRarVoNNnY2BhmDjl06ABKpZL69Ru90rm/EQEyUAeY5+vrW/2J9nZAOnDsv5/S63UtKpnB6y8Tl5qF2ljJ6Bb+VPayx9xcjVlYGNqxowCQKlbGbuliJFPTZ1xREARBEN49VlbW9OkzgPT0dCZP/jnffjVq1EatVvPnn1s4fPiAwSGzx3l4eJKRkcGaNavJzs6dJu327TAASpQo+VLmn5dq1WoQGxvD+fP/JP/KyMjgyJFDVK1a3SC93Ku0du3vjB07kvT0dH2bVqvl5MnjODk5Y21tTWxsDL/8Mp4NGzYYjN23bzfZ2dlUrFjFoP3ixfN4eRXHysr6lc69UG6x8PX1LYEua8W54ODgTGA+0B1Y6+vrOxyIAD4GugFDgoODo17bZF+Ds7fjGbc9mEyNFhtzI0Y288XVQoUkSVR9EIt28q8ASIEVUc2cg8LMDFIKxx4wQRAEQShsGjduwrZtmzhx4ih79+6mfv2GufqYmJhQp049fvttBRYWllSuXDXPa1laWtKv37dMmPATnTt/RcuWrfH09CInR8OFC+dZs2YVtWvXpWpVwzW/O3duc+nSxTyvaWxshI+PHwCRkRHEx8fj4+Obb+7fevUasnLlMoYOHaivDrhq1TJSU1Np3/4bfb/4+HgiIyMoWtTtuYuRFESnTl3o06cb333Xj7Ztv0KWtWzcuI6rVy/z008TkCSJsmXLU6VKdaZPn05SUhqlSpXm6tXLLF26iBo1alGjRi2Da16/HvJSK+blp1AGyMCPQHugGBAWHBwc4+vrWwsYA4wGHIBgoHNwcHBQ/pd5+xy6HsPkXdfRaGWcrUz4qUVprpzez4l7UXxiYYti1I8gy0jlA1HNnItklnfybkEQBEEQ/jFgwCA6dGjL9Om/UrVq7kwXoAukt2/fSoMGjQ1Srz2padPmeHp6sWbNapYvX0xCQjxKpQovLy+6du1Jixa5k2/NmTMj3+s5OjqxYcOfACxZspDt27eydu1mXF2L5NlfpVIxZcpMZs6cwuzZ09FoNPj5lWLq1Nl4eRXT9zt27DDjxo1iyJARfPjhR/m+/4sKCCjLzJkLWLRoLmPHjiQrK5NSpUozdepsAgN1paUVCgVjxkxk/fpVbN26mcWLF2BnZ89nn31hEMw/EhcXi6Xlq8+MIj0tWfRbyAsIfVOzWPx5MZq5B24hA1725oxq7o+d2pioqLvcP7CXUj9PAK0WqWx5VHMWIKl16VkK0ylioXATz4pQEOI5EQpKPCtCQb2uZ8XR0TLP/SZvyh7kd5osy/x+6g5zHgbHpVwsGdPcj7T4aACcLpz/JzguUxbV7Pn64FgQBEEQBEF4PoV1i4XwkFaWWXQ4jCBNUJMAACAASURBVM0PS0dX9LRhcBNfzp89zrlzp2jjUQLzH4fogmP/AFSz5iO9hvQtgiAIgiAIbwsRIBdimhwt0/beZH+wLovdez4O9G/gjUqpIDCwCg7R0ZgPHwo5OUh+pVDNXYBkZfWaZy0IgiAIgvBmE1ssCqmM7BzG/hmsD46blnGhT10v/j53kpycHJRHDuH+0yjQaJB8fFHNXYT0ilOeCIIgCIIgvAvECnIhlJKpYfTWq1yN0m1W/6KKO20quxEaepNTp47hdP8BLsOH6oLjkj6o5gUh2di85lkLgiAIgiC8HUSAXMjEpWYxYvMVwmJ1tdm71SlGs7KuABQv7s3nvgFYDBqoC45LeOuC41eQu1AQBEEQXrWxY0eyfftWgzalUolabYGfnz+dOnUhIKDsa5rdq3f27Gn69u2eq12pVGJhYYG3tw/t23+jT4n2PJKSkpg7dwZHjhwkNTUVPz9/evbsi79/wDPH7ty5ndWrlxMRcQcbGzvq1WtAx45dMDMz0/eJjo5m4cI5nD17muTkJIoUcaNly1a0aPEJCsU/GxQOHNjHsmVB3L4dioWFJfXqNaRz526o1f+cl9q7dzfDh+cuHe3i4soff2zJc47Dh/9AdnYW48f/+jwfS4GJALkQiU7M4MdNl4lOykSpkOjfwJsaxazZvn0zVarUwDY4GIvB30F2NhQvjmp+EJKd3euetiAIgiC8MDMzc6ZMmaX/XavNISYmhiVLFtC3b3cWLVpBsWLFX+MMX70ePfpQrlyg/vesrExCQ2+xfPliBg7sy8KFyyhe3LvA19NqtQwa1J/IyEi6d++NpaUlK1cuo1+/HixatBwPD698x+7YsY0xY0bQpElTevbsR3h4GHPnziIi4g7jxk0CdMF3795dkCQFXbr0wMHBkRMnjjF58kRu3w6jf/+BwD+B74cffkT37r25dy+KuXNnERx8lVmzFugr+oWEXMPOzo5x4wyDXWNjo1zz02g0TJv2K3v37qJ27fcK/Jk8LxEgFxKhMamM2HyF+LRsjFUKfvjAl0qetiQlJRITc5/4U8exHPEjZGWBVzGM5i9Gsnd43dMWBEEQhH9FqVQQEFAmV7uvrx9t237CunVrGDgw9+ri28Td3TPXZxAYWImiRd0YOLAvO3Zso2fPfgW+3oEDe7l48QIzZsyjQoWKAFSuXI02bT5myZJFDB/+U75jN21aT/HiJRg6dCSSJFG5clXS0tKZN28m0dHRuLi4sGPHVqKjo1ixYq2+8EjlylVJTU1lw4a1fPNNNywtLQkKmk+ZMuUYMmSE/vqSpGD8+NFcuXKZ0qV1q9khIdfw9/fP8zl43MWL55k+fTK3bt3AxMSkwJ/HixABciFwJSqJ0VuukpqVg9pEyfBmpfB10lXAs7Ky5nOfAOjXEzIzwcNTFxw7OL7mWQuCIAjCq1O0qBvW1jbcvRuhb4uLi2XevFkcO3aElJRkPD29+OqrTgaloWVZ5o8/fmf79i2Eh99Gq9Xi5uZO69ZtaN78YwCiou7y6afN6dmzH7t2befu3Ug++eQzunbtybJlQWzfvo3796MflpSuQrduvXFycta/x99/n2Xx4gWEhASTk5NDQEBZunTpTqlSpQ2uP3z4GE6fPsGhQwfIysqkXLlA+vX7Fk9PrwJ9BhYWuopxkvTPloVH21KeVknv2LEj2Nra6YNjAFNTU2rWrM3u3X8hy7J+9fZJmZmZmJurDV63ttYlAUhKSsDFxQV7e0dat/7coCofQLFixcnJydFXuxs37mfA8H2MjHSrwtnZWfq2kJBgWrfOXV3wSd991x8/v1IsXLic774r+B8ML0IEyK/Z6dvxjN8eTJZGi625EaOa+1PUSsWGDb9TooQP5bQS9OsFGRng7o7RgiVITk6ve9qCIAiC8EolJCSQmJigD0yTkpLo3r0TWVlZdOnSA0dHJ/bu3cXw4YNJSxtGs2YtAZg/fzarVy+nc+fu+PsHkJKSwpo1q/j557F4e5c02IM7f/4sevTog4eHJ/b2DqxYsZQlSxbSo0cfSpb0JSrqLrNnTyc8PJwFC5YCsHv3X4waNYyqVaszdOgIsrKyWbVqGb16dWHq1NmULVtef/3JkydSt259Ro0aR2xsDDNmTGH48MEsXfqbwb3KshaNRqP/PSsrk+vXQ5g6dRLGxsY0bvyB/rUOHTrTokUr7J/yLXJYWCju7h652t3cPEhNTSUm5gGOjnnHEm3atGPMmBGsW7eG99//kIiIcJYvX0LJkj54e/sA0KBBIxo0aJRr7P79ezA3V+sD98e3cqSlpXL+/N/MnTsTHx8/ypQpB8C9e9EkJMRz+/Zt2rdvy+3boVhb2/Dhhx/RqVNXfUANMGPGPEqW9Mn3vl8mESC/RvuDHzB1zw1ytDIuVib81KI0LtamaLVa7OwcsI6LRzPsB8hIh6JuuuDY2fnZFxYEQRCEN8iTwWF4+G3mzJmBJEm0bKlbWVy7djXR0VEEBa3E27skANWq1SA7O5vZs2fQqFETTExMuXcvmg4dOvPllx301yxRwpvPP2/JmTOnDQLkKlWq8fnn7fS/z5s3GxcXV1q3boNCoaBChYpYW9tw7doVNBoNSqWSmTOn4uPjx6RJ0/SrrDVq1KJNm4+ZOXMq8+cv0V+vdOkyDB78o/73qKi7BAXNJzIygqJF3fTtQ4d+n+szMTY2oUyZskyfPo8SJf7Zf1y0qJvB2LykpCTj5uaeq139sMpuamoqjvl8EV2/fiMuX77IlCk/M2XKzwB4eHgyadJ0g8N3T1q6dBEXLvxN1649MTY2NngtPj6ejz7SBdRWVtZ8++1glEoloNteARAWFkaHDt9gbW3DiRPHWLVqGeHhYYwdO0l/nf8qOAYRIL82Wy9EMe9gKABe9uaMbu6PmTKHzMwMTExMqWvvjKZHZ0hPB9ciGC1YjOTi+ppnLQiCIAgvV0pKCnXrVsvV7ubmzujRE/Dz8wfg5MnjuLm54+VVzCCgrl27Lrt27eDKlctUqFBRv782KSmR8PBw7t6N4OLFC4Dh1/pAroNvlSpVYdaso3Ts+AW1a9elSpVqVKtWg5o1awO6ldmYmAe0bfulwRYEU1NT6tZtwLp1v5OWlqZvL1u2nMH1H62Gp6enG7T36tWfChUC0Wq1XLp0kQULZlOlSjWGDh2Fubl5AT5FQ1qtzJNbGx6X3/YKgCFDvuPUqeN07NiFChUqcu9eNEFBC+jfvwczZszHNo/MWYsWzWPx4gXUr9/I4A+TR4yNjZg6dTYZGemsWrWcPn268ssv0wkMrERAQDl+/nkqdevWICtLF4AHBlbCxMSEoKD5XLlyqUCZN142ESD/x2RZ5rdTEaw6eQcAf1dLfmxWCrWxknXr1qJSqfiouB85vbpCWhq4uGC0cAlSkaKveeaCIAiC8PKZmZkzY8Zc/e8qlRG2tra5thAkJiYQEXEnz2Aa4MEDXWGt69eDmTz5Zy5ePI+RkREeHp76IFuWZYMxdk9kgmrTph0WFhZs3bqJZcuCWLJkIXZ29rRp044vvviapKREgDy3N9jbOyDLMmlpqY/dm5lBn0crsLKsNWgvWtRNP0d//wCKFCnK4MEDSElJZcqUmU9duc2LpaWFwTweSU3VtVlYWOR6DeDSpYscPXqI7t17GwS6ZcuW54svWj3cSvLP3t/MzAzGjRvFnj27aNq0Od99NyTPuarVFlSqVAWAihWr0KbNxyxbFkRgYCVsbW2pUaMW1taWPHiQrB9Tq1YdgoLmExISLALkt51Wlpl/MJRtF6MBqORpy6AmPpga6b5mqFixGorICHJ6doWUFHB20W2reMZXKYIgCILwplIqFfrg8GksLCzx8fHj+++H5Pm6q2sR0tJS+d//euPqWoSgoBUUL+6NSqUiJuYB27ZtfuZ7SJLERx+15KOPWpKSksLZs6f544/fmD17OiVL+uDoqFsBjo2NyTU2NvYBkiRhZWWd5+vPo1atOnz0UUu2bNnI6tXLadeu/XON9/Dw4vTpk7naIyLCsbKyxs7OPs9xUVGRAJQvH2jQXrSoG87OLty6dVPfFh8fz3ff9SM4+Cpdu/bk6687GYzJzMzg4MH9eHkVN9gaYWZmhpdXMe7fvwfA+fN/ExZ2i86dDe8xK0u32p/XivV/QZSa/o9k52j5ded1fXBc19eRoR/6os3O0J/Q9czMxHXIIEhJBkcnjOYHIeWxyV4QBEEQ3jWBgRWJjLyDs7MLfn7++p/r10MICppPRkYGYWGhJCTE88knn+Lj44dKpVsHPHbsCJB7BflJAwf2Zdgw3X5gCwsL6tSpS58+/wN0hTE8PDxxcHBk584dBtfKzMxg//69+PsH5Np/+6J69uyHra0dQUHziYq6+1xjq1WrQWxsDOfP/61vy8jI4MiRQ1StWj3fLRaPslKcO3fWoD06Opr79+9RtKju2+z09HT69+/JzZvXGTlyXK7gGECpVPHrrxOYN2+mQXt8fBzBwdf0QfP582eZNGkc586dM+i3c+d2TExMKF369RSKESvI/4GM7BzGbw/mbHgCAM3LufJNLS8UksSeQ/uIjLxDu6q1kXp2gaQkcHDQ7TkuYBoYQRAEQXjbtWnzJTt37qBPn+60a/c1zs4uXLjwN0uXLqJChYo4O7tgYWGBhYUFq1cvR622QK1Wc/r0SX7/fSWSJOXa+/ukwMDKzJ49jRkzplC9ek0yMtJZuXIZarWa6tVrolAo6NmzL6NH/8h33/WjZctWZGdns2rVchIS4hk5cuxLu19LS0t69uzL2LEjmTx5IpMmTQMgMjKC+Ph4fHx88w3G69VryMqVyxg6dCDduvXGxsaGVauWkZqaSvv23+j7xcfH6w8M2traUrKkLw0aNCYoaB5ZWZn6PchLlwahVqtp2/YrQLfn+ObN67Ru/TnOzi5cunTR4P29vUtiampKp07dmD79VyZOHEP9+o2Ij49j2bIgJEnim290FQSbN/+EjRvX0a9fPzp27IqTkzMHD+5j06b1dO3aCweH11PzQQTIr1hyRjajt17jWrRuX027qu58XslN/9dbnTr1ib90EalXV0hMBDt7XZ7jJ3ILCoIgCMK7zM7OnnnzFjN//mxmzZpGamoKTk7OtG37Fe3b61Yw1WoLJk6cwuzZ0xk9ehgmJiZ4eHgxcuQ4fvttBX//ffap7/HFF1+hVCrYsmUTmzatQ6VSUaZMOWbOnI/Dw/oDjRt/gFptwfLlixk+fAjGxkaUKVOOOXMW6fMgvywffNCMbds2c+zYEfbt2029eg1ZsmThM/Mgq1QqpkyZycyZus9Co9Hg51eKqVNnG+QuPnbsMOPGjWLIkBF8+OFHAPz442hWrVrGn39uYfnyxdjbO1ChQkW6dOmBs7MLAHv37gLgjz9+548/fs/1/osXr6RkSV8++6wtdnZ2rF69gl27dmBsbEKlSlWYMGGyPsuGjY0Ns2cvYvnyBSxaNI/ExATc3T0ZNGgYzZq1eKmf5/OQnvV1w1vGCwiNjU15eMLz1YpNyWLE5ivcjktDArq/V5wPy7iQkpLMlSsXqVy5OvLNG2i6dIT4OLC1RbVgCYqH6WteFkdHw43vgpAf8awIBSGeE6GgxLMiFNTrelYcHS3z3G8iVpBfkbsJ6QzffIV7SZmoFBIDGpWkdknd1wQ3b4Zw/vxZfMzUmPfrrQuObWxQzQt66cGxIAiCIAiC8HxEgPwKhMakMnzzFRLSsjFRKRjygS+Bnv+cwixbNpBixqaY9ukBcbFgbY1q7iIUPr6vcdaCIAiCIAgCiCwWL93lu0n8sP4SCWnZWJioGNOyNIGetiQlJbJp01qSk5Mg/DamfXtCTAxYWumCY79Sr3vqgiAIgiAIAmIF+aU6GRrHxB0hZOVosVMbM7q5P572ugo4GRkZJCcnkX47FJMB/eHBA7CwRDV3IYpSz87/KAiCIAiCIPw3RID8kuy9dp9pe26glcHV2pSfWvjjbGVKdnY2RkZGODk50+a9Rmi7dID798DCAtWc+ShK//fVYQRBEAThZQkPD2P58iWcOXOKuLhYzM3VlCzpw0cftaRt29ave3qFWuvWHxEdHWXQJkkSpqZmuLi40KBBY776qiNKpfK5r71t22ZWr17B3buRODo68vHHrfn883ZPLTMNun+fc+bM4OLFC2i1Wvz9S9OjR19KlPinLLdGo2H16hVs27aJ+/fv4+rqSsuWrWnV6jODSnoZGRkEBc1j9+6dJCTE4+pahFatPueTTz41eM8bN64zbNg8Tp06hSRJ+PsH0L17b3x8/PR9MjMzWbFiCTt3bic2NoYiRYry2Wdtadas5XN/NgUhAuSXYPP5uyw4FAZAcQc1I5uXwtbcmKSkRDZs+J3q1WtTUm2FtmsniI4Gc3NUM+ehKFPu6RcWBEEQhEIsLCyUbt06UKxYCbp164WTkzPJycns37+HkSOHcu9eBO3affPsC73DypcPpHv3PvrfZVlLXFwsmzZtYOHCuWRmZtKtW6/nuubGjev45ZfxfP55O6pUqcapUyeYOXMqGRkZdOjQOd9x8fHx9OnTDXNzNQMGDMLY2JilSxfSq1cXlixZhYuLKwDTpv3Kli0b+Oabbvj7B3Dhwt/MmDGZ+Pg4unbt+fA+ZAYN+h/Bwdfo1q0X7u4eHD58gMmTJyLLWlq1+hyAW7du0qPHN/j7l2L48DFoNBqWLl1Ev349WbJklT613OTJE9mxY5v+PY8dO8KECWNIS0vns8/aPtfnUxAiQP4XZFlm5ck7/H5KVwmvdBErfmzqh9pE97Gam5tTpEhR7GSZ7K4dIeoumJmhmjUPRfkKr3PqgiAIgvCv/fbbCpRKFdOmzcHExETfXqdOXbRaLQsXLqRp01bY2Ni8xlkWbpaWlgQElMnVXrNmHT77rAVbtmx8rgA5MzOThQvn8OGHH+mrAFatWp2cnBxWrFjCp5+2Qa22yHPs4cMHiI2NZeLEKfry335+/rRs2YTt27fSsWMXYmNj2Lx5PV988TVffdURgIoVKxMZGcHatavp3Lk7CoWCvXt3cebMKaZPn0tgYCUAKlWqQkzMA44dO6IPkGfNmoaTkxOLFy8mKUlXXtrfvzSdO3/N6dMnadq0OZmZmezYsY0WLT7RV+2rVKkKoaG3WLv2NxEgFyY5Wpl5B2+x/ZKulnjVYrZ8974PJioliYnxqNWWqFRGNCxbkexv2kNkBJia6VaOK1R8zbMXBEEQhH8vLi4WSQKtVpvrtXbt2lO+fBl9SeY//9zCuHGjmDNnEbNmTSMkJBh7ewc+/rg1bdt+afDV/6lTJ1iyZCHBwVdRqVRUqlSFnj37UaRIUX2fBw/uExS0gBMnjhIXF4upqRllypSlR48+FC+u2w6waNE8Nm1aT7t2X7NixVJUKhXjx//CzJlTcXJyxs/Pn7VrfyM29gHFi3szcOBgZFlm+vRfCQ4OxtHRkQ4dOvPBB83073vp0kWWLw/i0qULpKSkYGNjS/XqNenZsx9WVlYA9O7dFXt7eypUqMhvv63i3r0oXF2L0K5de5o2bV6gz1alUmFqaopGo9G3nT17mr59u9OxYxe++aZbnuOuXr1MQkIC9eo1MGhv0KAxa9eu5vTpk7z3Xv08x2ZmZgBgbq7Wt1laWqBUKklMTATAysqaBQuW4ujoZDDWyMiI7OxstFotCoWCPXt2UbKkjz44fmTMmJ/1/zspKYlTp47Tu/f/Hv6BpQuQHR2d2LRph76fRqO77pOBvbW1NZcvJ+R5L/+WCJBfQHaOlsm7rnP4RiwA9f0c6VvfG6VCIisrk/Xrf8fTsxj1AiqQ3bkDRNwBU1NUM+agqFjp6RcXBEEQhDdEzZp1OHr0MF26fM2HHzYnMLAS3t4lUalUlCzpQ40aFXMVfxg0aABNmzanY8cuHD16iNmzp5GWlkrnzrrSwwcO7OPHHwdRrVoNRo0aT1paKkuXLqJ7904EBa3AwcGRzMxMevfuipGRMb169cPOzp7Q0FssWjSXESOGsGzZ7/qAOzExgQ0b/mDIkOHExcVRsqQupeqRIwcJCwulb9//kZ2tYfLkifzww0CUSiXt2rXnyy87smxZEBMm/ETp0gF4eHhx69ZN+vTpSpUq1Rg2bBRGRsacOXOKFSuWoFIZMXDgYP19njhxnNDQW3Tu3A0rK2tWrlzK+PGjKVGiJH6PZa6SZdkgCM7JySEm5gFr1/5GePht/SotgK+vH3PnLsbJyTA4fVxY2C0APDy8DNrd3d0fvh7Ke+/lPbZBg8asWrWcadN+ZeDAwZiYmDB37kwUCgWNGjUBdIHwo73BsiyTmJjIvn272bFjGy1btkal0oWW168HU65cBf78cwsrVy4lIuIOTk4utGv3NS1btoL/t3fvcTbV+x/HXzOzzWBcZ8ZlknH3ZSq30tEQyjmJn0uJo5PuRYo4VEdFLuk8SA6KVEKDyqlTCkklUelCJJfKN5eRMZTLGMYl5rJ/f6w9294ze9xntmbez8djP9hrre/an9m+1nzWd33WdwFbt24mOzubqlVjGTFiBB9+uJijR4/QuHFTBgx4xFv3HBlZhs6db2L+/Hk0a3YV8fGXsWrVtyxfvpSuXW/J97s4H0qQz9KxE1mMWWxZm+ycsdzUJJZ7WtYk1PMfMTw8goSE1lQuEUFG77sheQdEROB6/kVCm18dxMhFREQurK5du3Ho0EFmz57J1KnPA1CqVCkaNWpK+/YdAt6kd+ONHenXbyDgXPo/dOgQb745h9tuu4NSpUozefIEjGnI2LETvDd8NW/egp49u5KYOINHH32c5OQdVKpUmQEDBnuTtaZNryQ1dT+JidNJTd1PdLTzcK6srCweeKAf11zTyi+Oo0eP8uyzE7wjoZs2/cSbb87m8ceHeW/8ioqKonfvu/jxx43ExdVk82bLFVc0ZvToZwkPDwecS/3r1//A999/57f/Y8eOMmHCFO8jquPiatC9e2e+/HK5X4K8YsUXtG3bIs/3dOmlcTz88CC6d7/VuywyskzAcgxf6emHvdv6ynl/5MiRfNtWrBjFkCHDGD78cXr0cEa6w8LCGD78GS4LMKnAsmVLGT7cOSmoX78Bd955MplPTd3PmjXfsXbtGu6/vy8xMZX4+OMPGT9+DMeP/0HPnr1ITU0FnPripk2bMGLEMxw+nM706S/Tr19vZs583XvVoE+ffmzfnsSgQSfLTVq3vs5bRnKhKUE+C4eOZfD0Bz9jf3c6350t4uh+ZTVCQkLYu3cP4KZSpSrUj6nsJMe/bofwcFyTXiT0L9cEM3QREZECcccd93DLLT357ruVrF27mnXr1rJq1TesXPk1S5Z8yDPPjPerT+7QobNf+3bt/saSJR+xYcN6YmNj+e233XTpcjPZ2dne0o0yZcrQuHFTVq78GoC6desxZco03G43u3alkJKSzI4dv7J69SoAMjIy/D7DdwaGHFWrXuJXJhAT4yTU8fEnE9Dy5Z3a6fT0QwC0b9+R9u07kpGRQVLSNlJSkklK2sbu3bvyzDQRG3uJNzkGqFy5CgB//HHMb7smTZrRv/8/Adi/fz8zZ04jLe0Aw4aNOm0yHIjb7Xxn+U1WcapZLJYuXcKoUUO56qqr6d79VkJDQ1m0aAGjRz+FyxWWpzTDmAZMmTKNlJSdzJjxCvfffyfTp88mKiqazMxMzwnLXGrVqg1A8+Z/Ye/evbz22nRuuaUnmZnOv1NsbCyTJ09m3z4nv2rQIJ5evbrz3/++zuDBQ0hLS6N37zs5ceIEjz32JHFxNfjxxw3MmjWTESOeZPTosaedneNsKUE+Q/sPH+epBT+RnHqMEODBtrXpcLlzZ6Xb7WbZso+BELq360BWn3th2zYoUQLXxMmEXpMQ1NhFREQKUunSpWnT5jratLkOgH379vHii5NYsuQjFi1a4DetV+7ygAoVogA4dOggpUqVAmDatKlMmzY1z+fkXL4HePfdt5g9eyb79++nXLny1K1bz5uI59Q956hYMTrPviIjI/MsA7wxQN5k8sSJE7zwwgQWL17I8ePHqVy5CsY0pGTJkpw4ccJv25IlS/m9zxkNz872j61s2bLeG+IAGjVqwn333c7gwf15+eUZ3nrqM1WmTFnAGSnOSfCd94f91gcyY8bL1KxZi3HjJnm/6xYtEhg48CHGjx9L69bX+X0n1apdSrVql9KkSTPq1avPvffezsKF73PXXfdRunQkUVFR3uQ4R0JCS9asWcWuXTu9/wYtW7bOs98aNWph7SYAFi58n927d/HKK4nekeymTa8kJqYSzzwzgm+++YqEBP8rBOdLCfIZSDlwjOELfmJP+nFcoSE8ekM9WtaN8a4PCQmhffvOcOgQWX3vw711C7hcuP7zAqEtrw1i5CIiIgVj79499O59Fz179uIf/7jdb11MTAxPPDGc5cuXkpS0zW9dWlqaX+KWmurcz1OxYpQ3ebvnnt60PMXvz6VLP2HixOc8o9d/947Uzp49kzVrvsu33fl64YX/sHjxBwwZMoyWLa/1li0MGtSP5OQdF+QzypYty9Cho+jfvzejRj3FjBlz/E4MTqdGjZoA7NyZ7HdTY3JyMgC1atXKt+3u3bvo0KFTns9r2rQZa9as4sCBVDIzM/nuu5W0atXa79+xbt36uFwu9uxxJi+Ii6vhLaHwlVNvHRFRkri4GkDeEX+ArKxMSpYs6YkrhRIlSuQp82jqmfRg27YtFzxB1qOmT2Pr3sM8Pm8je9KPU7JEKMM7NfQmx7/9tovvv3cu55RzQ+lHBuLe/IuTHD83kdDW+VTBi4iI/MlFRUXjcrmYP/9dDh8+nGd9SspOMjIy8pQ3fPHFMr/3S5d+QqlSpbniikbUrFmL6Ohoduz4lQYN4r2v+vUbMHfuHJYuXQLA2rXfExYWxn33PeBNjt1uN99+65RgBJpV40L44YfviY+/nBtu6OBNjtPS0vj5558u6Gc2btyETp1uYuvWzfz3dklVEgAAEidJREFUv6+fVdvLL29EZGQkn322xG+58z2XonHjZvm2rVGjFhs2rPO7aRBg/fp1lClThnLlypOaup8xY57mgw/m+22zevUqMjMzqVevPgAJCa3YvTuFdet+8NtuxYrPiY2tRuXKVYiLq8mll8axdOknfkny9u1JJCfvoHFjZ0rcmjVrkZGRwcaNG/z2tWHDOsAZcb7QNIJ8ChtSDjL6g00cy8iibISLkV0aUr/KyUsTmzdv4tdfk7gsrjah/R/A/Yt1kuNxEwjNNb2KiIhIURIWFsa//jWUIUMGcc89t9Gt29+pX9+ZIWLTpp94++03ady4sd8UaQCJidPJzs6mYcPL+PLLz1m69BMGDBhMRIQzWti378P8+98jCQ8P5/rr/wrAvHn/49tvv+app54G4LLLLuf9999h4sRxtGt3A+nph5g/f543Yfrjjz8K5GeOj7+cTz5ZzNtvv0m9eoaUlJ288cYsjhw57PcEuQvhwQf78+WXy0hMnE67djcQG3sJR44cJikpicqVK3trmnOLiIjgrrvuY+rUF4iIiCAh4VrWrFnlnaO4bNmTeczGjRuIjIz0lkE88MBDDBkymCFDBtOtWw9CQ0P5+OMPWbXqGwYNegyXy4UxDWnd+jpmzHBqwBs2vIwtW34hMXEGxjSkY0fn5r4ePW5l8eJFDB36GH36PETVqrEsWjSfDRvW8/TTJ2uGBwwYzBNPPEKfPn24+ea/k55+mFdffYno6BjvDYqdOnVl3rx3GDr0Me69tw/Vq8exadNPzJo1g/j4y7n22rYX9LsHJcj5WpmUyrMfWTKy3ERHhjO6azzVo0oDzllqSEgILVu25aqrWuD631tkbfoZwsJwjXmOUM9/aBERkaLs6qtbMHPmG8ydO4f33vsf+/fvIyQkhGrVqtOt29/p378v6en+l88feeRx3nnnLWbNmsGll1Zn6NCRfkl0hw6dKFu2HG+8kciwYUNwuVzUrl2XMWPG06pVG+82v//+Gx98MJ/Fiz+gYsUoGjduyqRJUxk48EF++GFNwBvzzlf//oNwu93Mnv0ax44dpUqVqrRt247o6GgmTRrPtm1bzrpmOD/lypWnb9+HGTt2NBMnjmPcuElYu+m08yAD3HbbnbhcJXj33bdYsOA9qlSpysMPD6Jnz15+2/Xtew9NmjRjypRpAFxzTSsmTnyRxMTpjBz5JGFhLmrXrsNzz03yzgISEhLCiBHPMHfuHBYtWsDMmdOoUKEiHTt25r77+nhn9yhdOpKXXprBtGlTefXVlzhy5Ai1a9dhzJjxfgltQoLzmXPmzGDYsCGEh0dw9dV/oV+/f3rnlfbd18yZr5Cenk5s7CX06PEPbr/97rMqQTlTIbkL2Yu4mkDS/v2H8xTJ+/r05z1M/mwL2W6oVqEkT3eJp3I558w2JSWZVau+pkOHLt4CfPfWLWROeZ6wm7oR6rlB4WJSqVLZPPNQigSiviJnQv1EzpRvX8l5UMhrr73hnYtYJEewjiuVKpUNOP2FRpBzeW9tCjO/+hWAOpUiGdm5IRVKh3vXZ2Vlep8UkyOkTl1KTJxc6LGKiIiIyIWnBNnD7XYz+5sdvPN9CgBXVCvHsP9rQOlw5ys6fvwPzx2XtaheveYFn29PRERERC4OmsXCwzc5blE7ipGd473J8a5dO5kzZwYpKc4UKUqORUREzk7Hjp1ZsWK1yivkT0EjyB4rk5y5+v7WsDL9rqtDWOjJJDgqKppateoQFRWTX3MRERERKSKUIHsM7diA3Qf/4MoaFbwjxHv2/E5MTCVKlixFu3Y3BjlCERERESkMKrHwqFaxFFfVrOhNjtPSDjBv3lzWri24J/KIiIiIyMVHI8j5qFChIq1bt6NOnXrBDkVERERECpFGkHNJStrCwYNpAMTHX+F9so+IiIiIFA9KkH1kZJxg+fJPWbnyq2CHIiIiIiJBohILHyVKhNO1a3fKlCkX7FBEREREJEiUIAObNv1EdnYm8fGNNJWbiIiISDFX7Ess3G43W7f+wpYtm3G73cEOR0RERESCrFiPILvdbkJCQmjfvhPg1hPyRERERKT4jiD/+ON6Fi6cR2ZmBi6XC5erRLBDEhEREZGLQLFNkMPCXLhcYRo1FhERERE/xbbEokGDeIxpqARZRERERPwUtwQ5DODIkXQiI8sCxSc5Dg0tPj+rnB/1FTkT6idyptRX5EwFqa/UBHYCmb4LQ4rZzA2tgC+DHYSIiIiIXDRqAdt9FxS3BDkCaA7sBrKCHIuIiIiIBF+xH0EWERERETmlYjuLhYiIiIhIIEqQRURERER8KEEWEREREfGhBFlERERExIcSZBERERERH0qQRURERER8KEEWEREREfGhBFlERERExIcr2AHIhWGMcQGfA99Za/95mm17AG8HWPWrtbZmAYQnQWaMuQsYANQHDgFfA09Ya7ecok0EMAq4DagEbASGW2sXF3zEEizn2FceA8YFWPW5tbZtQcQpwWeM6Q0MBGoDvwGzgLHW2uOnaFMRGAt0AcoB3wH/stauKviIJVjOsa+8CDwUYNUsa+3dBRGnL40gFwHGmEjgf0DCGTZpBuwFrsn1urlAApSgMsYMAhKBlcAtwKPA5cBqY0ytUzRNBPrhJD7dcQ5qC40xbQoyXgme8+grzYD15D2mBPrlJkWA56RoGvAh0Bl4HngMmHGKNqHAB0BX4Amck+9w4DNjjCnomCU4zqWveDQDPibvcWV0gQXrQ4+a/pMzxvwfMAGI9ryeP4MR5I8BrLXtCz5CCSZjTAiwD1hirb3VZ3l1YDswyVr7SIB2V+GM7NxtrZ3lWRbqWXbMWtuqEMKXQnSufcWzjQWWW2sfKIxYJbiMMeE4J8yLrbW9fJaPAp4CLrHW/hagXXecwZy21trPPctKA5uBZdba2wsjfik859FXwnCuYD1jrR1TWPH60gjyn5gxpgKwEFgHNDmLpk2BHwokKLnYlAfeAGb6LrTWJuMcfKrl064jkA3M82mTjfPLraUxJrpAopVgOqe+YowpA9RFx5TiJBNojTMK7OsEEIIzKhxIR2BPTnIMYK09ivN7rLPnJE2KlnPtKw2A0gTxuKIa5D+3o8Bl1tqfAc7kCpVnNKgSUM8Ysw5oiDNqlAiMtNaeKLBopdBZa9Nw6kn9GGP+ClTAObkKJB7YZa1Nz7V8s+fPBsBXFypOCb7z6CtNcQZbEjwlGrWAncAUYIK1VpcpixjPyfLGnPeewZr2OJfNF1hrd+TTNB74JcDyzTj1yJcAKRc2Wgmm8+grzTx/3myMeRnnBH0zMMZaO7sAQ/ZSgvwn5klmfz7LZjmdrj4wEtjPyc5qcOoOpQgzxlwCTAd+B17JZ7MKwMEAyw95/ixXAKHJReYM+0rOMaUWMBg4jlOzPh4n4QlYliFFgzGmOZBzg912nLr1/FQAAt3s6XtcUYJcRJ1lX8k5rlQB7gdKAPcCs4wx5a21kwsqzhxKkIufr4FOwNfW2gOeZcuMMceAkcaYq3U3cdFljKkLfAREAe2ttan5bBoKnGrkT6OCRdxZ9JV5wDbgE5870pd4ag8HGmPGW2t3F3zEEiQ7getwEpmngFXGmJbW2p8CbKvjSvF2Nn1lKvApTu1ytmfZh8aYz4DRxphXCvqKtxLkYsZauxdYFGDVApwR5aacPMOTIsRzqfwtIAv4m7V25Sk2T8O5opBbOZ/1UkSdTV/x1CgnB1i1ALgbaAQoQS6iPCc/uwGMMZ/jjAwOAnoH2DyNwFefdFwpBs6mr1hrN3OypM/XQpwkuxZgCypW0E16xY4xppUxpk+AVSU9f+4tzHikcBhj7gcW41wqb3Ga5BhgE1DNc4e5r3o4ozybLnyUcjE4275ijLnRGHNbgFU6phRRxphoY8wduaf+88xGkAJUz6fpJpxjSG71gFScPidFyLn2FWNMD2NM5wCrCu24ogS5+GkNvGKMuSbX8l7AMeCbwg9JCpIx5g6cOShXAAnW2m1n0GwxEAZ089lPKNAD+MZzQ5cUMefYV7rh1AXG5VreC2d6p0CXT+XPLQznQQ+P+S40xjQAapL/zAOLgVhjTCufNqVx5sb9SDd0Fknn2ld6AzONMeV82riAnsAPpyj5umA0D3IRYoxxk2seZGNMHZxZK9Zaa48bY2KA73FOjobj1ATdDDwAPGmtHVv4kUtBMcZUAbbinPzcChzJtUmqtfYXY0w8UM5a+61P20U4l7KG4lzK6gt0AG6w1i4rjPil8JxrXzHG1ANW44wGjQLScUorugO9rLVzC+cnkMJkjJmI82S0Z4ElQB2c3ymZQHNr7T5jTFMAa+1aT5sSOHOpV8OZ9msv8C+cMpyrc2ZkkqLlHPtKS2AZzrHlWc+uBgItccq+vijouDWCXPQ9hTMqHAtgrd0HtAI+A57GqRNMAO5Xclwk/R8QCcTg3PDwTa5XzuOBp5L36kFPnDlxHwfeAaoCnZUcF1nn1Fc8tYIJOCdRLwDvAnHATUqOi7RHgYdxbvpehPN0s49xynL2ebZ5z/MCwFqbAdyAc/PnOOB1nPlw/6rkuEg7l77yFc4AzRGc30Nv4JT3XV8YyTFoBFlERERExI9GkEVEREREfChBFhERERHxoQRZRERERMSHEmQRERERER9KkEVEREREfChBFhGR0zLGhAQ7BhGRwuIKdgAiIkWdMSYRuCvX4izgIM6DE0ZZawvkKZbGmLY4E+7fbK193xhzN/Aa0NRam99TrHLvox3Ok7Bu9LyvCSQBg6y1kwogbBGRoFKCLCJSOA4Df/N5HwZcgvNEqWXGmGbW2sJ4LPMi4Brgl7No8zDQwOf9bs8+tl+4sERELh5KkEVECkeW76O8cxhj1gCbgf7AQwUdhLV2L84jfs9nH8eBPD+LiEhRoQRZRCSIrLXbjDH7gDo+5Q/34DyONRzoY62db4y5EngGaIlz/8hXwBDfMgljTAlgBHAnUAlYAcz2/bxAJRbGmMaez2uFM7K9BnjSWvutMWY50MazndsT23JylVgYY8oCTwC3ADWAFGAO8G/PI4ZzSk0a4DxmeCRgcEajX7LWPns+36OIyIWkm/RERILIGBMDxADJPovHAgOBwcAXxpi/4CS7FYC7cRLgSGCFMaaRT7vXcGqFXwW6AhuB6af5/IbANzhJ7YNATyAE+NQY0wBnVPsL4DecsopFAfYR4dmmH/AK0Bl4A3gSmJdr84bAf4BJQAdgJTDWGHPLqeIUESlMGkEWESkkxhjfY24pnBHUZwE38DJwuWfdeGvtPJ9244A9QDtr7VHPskXAzzjJdEdPMtsLGGGtHe1p+okxJhLofYqwngIygOustamefX8FrAWut9ZONcYcAI7nlIh49unrbqAJ0MVau9CzbIkxZj8wyRhzo7X2I8/ycsAN1tqVPp/VBbgJePcUcYqIFBqNIIuIFI7yOIlozusQzgwWcUAPa+1qn2035PzFGFMKp6ziI+CEMcblSbSzgA+Bdp7SijaeJrlHbOeeJq62wNKc5BjAWptura1rrZ16hj/b9cBBn+Q4xyyf9TlOAKt8Pus4Tk107qRbRCRoNIIsIlI4DgPX+bw/Aeyx1v4WYNvfff4ehVMX3MfzCqQSEO35e+4b8HafJq5KuT7vXEThlGD4sdamGWOO45SG5DhmrXXn2jQbDdiIyEVECbKISOHIyjVKfKYO4pRgTAem5bPNPk4mxlXxT3grnWb/aUDl3AuNMa2AA9baH88gxlSgeYB9RAERnvhERP40dMYuInIRs9YeBlYDlwFrrLWrc144tb/9cUo2PsVJpP+Raxc3neYjPgeuN8aUz1ngqTGeD/T1LMo6zT6WAeWNMZ1zLb/D5zNERP40NIIsInLxGwJ8AiwwxkwHjgK348xm8aSnZCHJGDMZeNQzHdtnOPXFp7pBD+BpnNkklhhjngWOAY/gDKA879nmAFDFGNMBCPT0vVk4M2C8bowZBazHmTLuCeBjYMm5/NAiIsGiEWQRkYuctXYZTrIbgTO38HvAFcC91toxPpv+E2dqtZ7AQpya53tOs+/1wLXAfiARZ3q240Aba+0Wz2Yv40xDN5+8j8zGWnvME98c4FGcqeBuw5m3uYu1NvvsfmIRkeAKcbtz3yshIiIiIlJ8aQRZRERERMSHEmQRERERER9KkEVEREREfChBFhERERHxoQRZRERERMSHEmQRERERER9KkEVEREREfChBFhERERHx8f8/s8YEohsNQgAAAABJRU5ErkJggg==\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x720 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"draw(y_test.ravel(), y_pred, y_train.ravel(), y_fit_pred, prop_name='refractive index')\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.4\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 2\n}\n"
  },
  {
    "path": "samples/visualization.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# Visualization\\n\",\n    \"\\n\",\n    \"Descriptors on a set of given materials could be displayed as a heatmap.\\n\",\n    \"By using this plotting, the descriptor-property relationships can be understand.\\n\",\n    \"This tutorial will show how to draw a heatmap.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### useful functions\\n\",\n    \"\\n\",\n    \"Run this cell will load some well-used packages such as `numpy`, `pandas`, and so on.\\n\",\n    \"The running will also import some valuable functions which are written by ourselves.\\n\",\n    \"There is no magic,  see `samples/tools.ipynb` to know what will be imported.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"%run tools.ipynb\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### draw elemental descriptors heatmap\\n\",\n    \"\\n\",\n    \"We will use ``Composition`` descriptors and property ``density`` to demonstrate heatmap drawing step-by-step.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 1. calculate descriptors\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1008807</th>\\n\",\n       \"      <td>24.666667</td>\\n\",\n       \"      <td>174.067140</td>\\n\",\n       \"      <td>209.333333</td>\\n\",\n       \"      <td>25.666667</td>\\n\",\n       \"      <td>55.004267</td>\\n\",\n       \"      <td>1297.063333</td>\\n\",\n       \"      <td>72.868680</td>\\n\",\n       \"      <td>1646.90</td>\\n\",\n       \"      <td>139.333333</td>\\n\",\n       \"      <td>128.333333</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.360</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>349.5</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1009640</th>\\n\",\n       \"      <td>33.000000</td>\\n\",\n       \"      <td>137.000000</td>\\n\",\n       \"      <td>232.500000</td>\\n\",\n       \"      <td>19.050000</td>\\n\",\n       \"      <td>77.457330</td>\\n\",\n       \"      <td>1931.200000</td>\\n\",\n       \"      <td>43.182441</td>\\n\",\n       \"      <td>1892.85</td>\\n\",\n       \"      <td>137.000000</td>\\n\",\n       \"      <td>123.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.192</td>\\n\",\n       \"      <td>0.02583</td>\\n\",\n       \"      <td>155.0</td>\\n\",\n       \"      <td>166.0</td>\\n\",\n       \"      <td>193.0</td>\\n\",\n       \"      <td>360.6</td>\\n\",\n       \"      <td>333.6</td>\\n\",\n       \"      <td>1.100</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1016825</th>\\n\",\n       \"      <td>21.600000</td>\\n\",\n       \"      <td>153.120852</td>\\n\",\n       \"      <td>203.400000</td>\\n\",\n       \"      <td>13.920000</td>\\n\",\n       \"      <td>50.158400</td>\\n\",\n       \"      <td>1420.714000</td>\\n\",\n       \"      <td>76.663625</td>\\n\",\n       \"      <td>343.82</td>\\n\",\n       \"      <td>102.800000</td>\\n\",\n       \"      <td>96.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.146</td>\\n\",\n       \"      <td>0.02658</td>\\n\",\n       \"      <td>152.0</td>\\n\",\n       \"      <td>150.0</td>\\n\",\n       \"      <td>182.0</td>\\n\",\n       \"      <td>302.1</td>\\n\",\n       \"      <td>317.5</td>\\n\",\n       \"      <td>0.802</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1017582</th>\\n\",\n       \"      <td>59.400000</td>\\n\",\n       \"      <td>139.000000</td>\\n\",\n       \"      <td>232.800000</td>\\n\",\n       \"      <td>11.020000</td>\\n\",\n       \"      <td>147.233694</td>\\n\",\n       \"      <td>4226.000000</td>\\n\",\n       \"      <td>150.200000</td>\\n\",\n       \"      <td>1037.58</td>\\n\",\n       \"      <td>137.600000</td>\\n\",\n       \"      <td>124.800000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>0.133</td>\\n\",\n       \"      <td>13.00000</td>\\n\",\n       \"      <td>170.0</td>\\n\",\n       \"      <td>177.0</td>\\n\",\n       \"      <td>204.0</td>\\n\",\n       \"      <td>275.4</td>\\n\",\n       \"      <td>2475.0</td>\\n\",\n       \"      <td>1.670</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-1021511</th>\\n\",\n       \"      <td>32.000000</td>\\n\",\n       \"      <td>140.500000</td>\\n\",\n       \"      <td>226.000000</td>\\n\",\n       \"      <td>14.300000</td>\\n\",\n       \"      <td>72.237000</td>\\n\",\n       \"      <td>877.912000</td>\\n\",\n       \"      <td>24.850000</td>\\n\",\n       \"      <td>272.50</td>\\n\",\n       \"      <td>124.500000</td>\\n\",\n       \"      <td>119.500000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>2.0</td>\\n\",\n       \"      <td>3.0</td>\\n\",\n       \"      <td>0.232</td>\\n\",\n       \"      <td>0.20500</td>\\n\",\n       \"      <td>180.0</td>\\n\",\n       \"      <td>189.0</td>\\n\",\n       \"      <td>215.0</td>\\n\",\n       \"      <td>284.8</td>\\n\",\n       \"      <td>2310.0</td>\\n\",\n       \"      <td>2.900</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>5 rows × 290 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"            ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-1008807          24.666667         174.067140              209.333333   \\n\",\n       \"mp-1009640          33.000000         137.000000              232.500000   \\n\",\n       \"mp-1016825          21.600000         153.120852              203.400000   \\n\",\n       \"mp-1017582          59.400000         139.000000              232.800000   \\n\",\n       \"mp-1021511          32.000000         140.500000              226.000000   \\n\",\n       \"\\n\",\n       \"            ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-1008807          25.666667          55.004267        1297.063333   \\n\",\n       \"mp-1009640          19.050000          77.457330        1931.200000   \\n\",\n       \"mp-1016825          13.920000          50.158400        1420.714000   \\n\",\n       \"mp-1017582          11.020000         147.233694        4226.000000   \\n\",\n       \"mp-1021511          14.300000          72.237000         877.912000   \\n\",\n       \"\\n\",\n       \"            ave:bulk_modulus  ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-1008807         72.868680    1646.90                   139.333333   \\n\",\n       \"mp-1009640         43.182441    1892.85                   137.000000   \\n\",\n       \"mp-1016825         76.663625     343.82                   102.800000   \\n\",\n       \"mp-1017582        150.200000    1037.58                   137.600000   \\n\",\n       \"mp-1021511         24.850000     272.50                   124.500000   \\n\",\n       \"\\n\",\n       \"            ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"mp-1008807                  128.333333  ...                1.0         2.0   \\n\",\n       \"mp-1009640                  123.500000  ...                2.0         2.0   \\n\",\n       \"mp-1016825                   96.000000  ...                2.0         2.0   \\n\",\n       \"mp-1017582                  124.800000  ...                1.0         2.0   \\n\",\n       \"mp-1021511                  119.500000  ...                2.0         3.0   \\n\",\n       \"\\n\",\n       \"            min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"mp-1008807              0.360                   0.02658           152.0   \\n\",\n       \"mp-1009640              0.192                   0.02583           155.0   \\n\",\n       \"mp-1016825              0.146                   0.02658           152.0   \\n\",\n       \"mp-1017582              0.133                  13.00000           170.0   \\n\",\n       \"mp-1021511              0.232                   0.20500           180.0   \\n\",\n       \"\\n\",\n       \"            min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"mp-1008807                   150.0               182.0               349.5   \\n\",\n       \"mp-1009640                   166.0               193.0               360.6   \\n\",\n       \"mp-1016825                   150.0               182.0               302.1   \\n\",\n       \"mp-1017582                   177.0               204.0               275.4   \\n\",\n       \"mp-1021511                   189.0               215.0               284.8   \\n\",\n       \"\\n\",\n       \"            min:sound_velocity  min:Polarizability  \\n\",\n       \"mp-1008807               317.5               0.802  \\n\",\n       \"mp-1009640               333.6               1.100  \\n\",\n       \"mp-1016825               317.5               0.802  \\n\",\n       \"mp-1017582              2475.0               1.670  \\n\",\n       \"mp-1021511              2310.0               2.900  \\n\",\n       \"\\n\",\n       \"[5 rows x 290 columns]\"\n      ]\n     },\n     \"execution_count\": 2,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# 1. calculate descriptors\\n\",\n    \"\\n\",\n    \"from xenonpy.datatools import preset\\n\",\n    \"from xenonpy.descriptor import Compositions\\n\",\n    \"\\n\",\n    \"samples = preset.mp_samples\\n\",\n    \"cal = Compositions()\\n\",\n    \"\\n\",\n    \"descriptor = cal.transform(samples['composition'])\\n\",\n    \"descriptor.head(5)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 2. sort descriptors by property values\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"mp-754417    0.242136\\n\",\n       \"mp-707454    0.584481\\n\",\n       \"mp-569787    0.618365\\n\",\n       \"Name: density, dtype: float64\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>ave:atomic_number</th>\\n\",\n       \"      <th>ave:atomic_radius</th>\\n\",\n       \"      <th>ave:atomic_radius_rahm</th>\\n\",\n       \"      <th>ave:atomic_volume</th>\\n\",\n       \"      <th>ave:atomic_weight</th>\\n\",\n       \"      <th>ave:boiling_point</th>\\n\",\n       \"      <th>ave:bulk_modulus</th>\\n\",\n       \"      <th>ave:c6_gb</th>\\n\",\n       \"      <th>ave:covalent_radius_cordero</th>\\n\",\n       \"      <th>ave:covalent_radius_pyykko</th>\\n\",\n       \"      <th>...</th>\\n\",\n       \"      <th>min:num_s_valence</th>\\n\",\n       \"      <th>min:period</th>\\n\",\n       \"      <th>min:specific_heat</th>\\n\",\n       \"      <th>min:thermal_conductivity</th>\\n\",\n       \"      <th>min:vdw_radius</th>\\n\",\n       \"      <th>min:vdw_radius_alvarez</th>\\n\",\n       \"      <th>min:vdw_radius_mm3</th>\\n\",\n       \"      <th>min:vdw_radius_uff</th>\\n\",\n       \"      <th>min:sound_velocity</th>\\n\",\n       \"      <th>min:Polarizability</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-754417</th>\\n\",\n       \"      <td>1.000000</td>\\n\",\n       \"      <td>79.000000</td>\\n\",\n       \"      <td>154.000000</td>\\n\",\n       \"      <td>14.100000</td>\\n\",\n       \"      <td>1.008000</td>\\n\",\n       \"      <td>20.280000</td>\\n\",\n       \"      <td>56.799640</td>\\n\",\n       \"      <td>6.510000</td>\\n\",\n       \"      <td>31.000000</td>\\n\",\n       \"      <td>32.000000</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.122728</td>\\n\",\n       \"      <td>0.18050</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>1270.0</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-707454</th>\\n\",\n       \"      <td>2.529412</td>\\n\",\n       \"      <td>86.529412</td>\\n\",\n       \"      <td>163.764706</td>\\n\",\n       \"      <td>14.794118</td>\\n\",\n       \"      <td>4.415529</td>\\n\",\n       \"      <td>98.300588</td>\\n\",\n       \"      <td>54.238542</td>\\n\",\n       \"      <td>93.583529</td>\\n\",\n       \"      <td>46.117647</td>\\n\",\n       \"      <td>47.117647</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.772948</td>\\n\",\n       \"      <td>0.02583</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>245.1</td>\\n\",\n       \"      <td>333.6</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <th>mp-569787</th>\\n\",\n       \"      <td>2.500000</td>\\n\",\n       \"      <td>86.562500</td>\\n\",\n       \"      <td>168.875000</td>\\n\",\n       \"      <td>12.062500</td>\\n\",\n       \"      <td>4.469221</td>\\n\",\n       \"      <td>923.522500</td>\\n\",\n       \"      <td>107.349730</td>\\n\",\n       \"      <td>55.982500</td>\\n\",\n       \"      <td>46.562500</td>\\n\",\n       \"      <td>47.812500</td>\\n\",\n       \"      <td>...</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>1.0</td>\\n\",\n       \"      <td>0.900000</td>\\n\",\n       \"      <td>0.18050</td>\\n\",\n       \"      <td>110.0</td>\\n\",\n       \"      <td>120.0</td>\\n\",\n       \"      <td>162.0</td>\\n\",\n       \"      <td>288.6</td>\\n\",\n       \"      <td>1270.0</td>\\n\",\n       \"      <td>0.666793</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"<p>3 rows × 290 columns</p>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"           ave:atomic_number  ave:atomic_radius  ave:atomic_radius_rahm  \\\\\\n\",\n       \"mp-754417           1.000000          79.000000              154.000000   \\n\",\n       \"mp-707454           2.529412          86.529412              163.764706   \\n\",\n       \"mp-569787           2.500000          86.562500              168.875000   \\n\",\n       \"\\n\",\n       \"           ave:atomic_volume  ave:atomic_weight  ave:boiling_point  \\\\\\n\",\n       \"mp-754417          14.100000           1.008000          20.280000   \\n\",\n       \"mp-707454          14.794118           4.415529          98.300588   \\n\",\n       \"mp-569787          12.062500           4.469221         923.522500   \\n\",\n       \"\\n\",\n       \"           ave:bulk_modulus  ave:c6_gb  ave:covalent_radius_cordero  \\\\\\n\",\n       \"mp-754417         56.799640   6.510000                    31.000000   \\n\",\n       \"mp-707454         54.238542  93.583529                    46.117647   \\n\",\n       \"mp-569787        107.349730  55.982500                    46.562500   \\n\",\n       \"\\n\",\n       \"           ave:covalent_radius_pyykko  ...  min:num_s_valence  min:period  \\\\\\n\",\n       \"mp-754417                   32.000000  ...                1.0         1.0   \\n\",\n       \"mp-707454                   47.117647  ...                1.0         1.0   \\n\",\n       \"mp-569787                   47.812500  ...                1.0         1.0   \\n\",\n       \"\\n\",\n       \"           min:specific_heat  min:thermal_conductivity  min:vdw_radius  \\\\\\n\",\n       \"mp-754417           1.122728                   0.18050           110.0   \\n\",\n       \"mp-707454           0.772948                   0.02583           110.0   \\n\",\n       \"mp-569787           0.900000                   0.18050           110.0   \\n\",\n       \"\\n\",\n       \"           min:vdw_radius_alvarez  min:vdw_radius_mm3  min:vdw_radius_uff  \\\\\\n\",\n       \"mp-754417                   120.0               162.0               288.6   \\n\",\n       \"mp-707454                   120.0               162.0               245.1   \\n\",\n       \"mp-569787                   120.0               162.0               288.6   \\n\",\n       \"\\n\",\n       \"           min:sound_velocity  min:Polarizability  \\n\",\n       \"mp-754417              1270.0            0.666793  \\n\",\n       \"mp-707454               333.6            0.666793  \\n\",\n       \"mp-569787              1270.0            0.666793  \\n\",\n       \"\\n\",\n       \"[3 rows x 290 columns]\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# use formation energy as our target\\n\",\n    \"property_ = 'density'\\n\",\n    \"\\n\",\n    \"# --- sort property \\n\",\n    \"prop = samples[property_].dropna()\\n\",\n    \"sorted_prop = prop.sort_values()\\n\",\n    \"sorted_prop.head(3)\\n\",\n    \"\\n\",\n    \"# --- sort descriptors\\n\",\n    \"sorted_desc = descriptor.loc[sorted_prop.index]\\n\",\n    \"sorted_desc.head(3)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"#### 3. draw the heatmap\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# --- import necessary libraries\\n\",\n    \"\\n\",\n    \"from xenonpy.visualization import DescriptorHeatmap\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"DescriptorHeatmap(bc=True, col_cluster=True, col_colors=None,\\n\",\n       \"         col_linkage=None, figsize=(70, 10), mask=None, method='average',\\n\",\n       \"         metric='euclidean', pivot_kws=None, row_cluster=False,\\n\",\n       \"         row_colors=None, row_linkage=None,\\n\",\n       \"         save={'fname': 'heatmap_density', 'dpi': 200, 'bbox_inches': 'tight'})\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 5040x720 with 5 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"heatmap = DescriptorHeatmap( \\n\",\n    \"        bc=True,  # use box-cox transform \\n\",\n    \"        save=dict(fname='heatmap_density', dpi=200, bbox_inches='tight'),  # save fingure to file\\n\",\n    \"        figsize=(70, 10))\\n\",\n    \"heatmap.fit(sorted_desc)\\n\",\n    \"heatmap.draw(sorted_prop)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.3\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 4\n}\n"
  },
  {
    "path": "setup.cfg",
    "content": "[aliases]\ntest = pytest\n\n[yapf]\nbased_on_style = google\n\n# The column limit.\ncolumn_limit=120\n"
  },
  {
    "path": "setup.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n# -*- coding: utf-8 -*-\n\n# uncomment this for compatibility with py27\n# from __future__ import print_function\n\nimport os\nfrom pathlib import Path\n\nfrom ruamel.yaml import YAML\nfrom setuptools import setup, find_packages\n\n# YOUR PACKAGE NAME\n__package__ = 'xenonpy'\n\n\nclass PackageInfo(object):\n    \"\"\"\n    Appendix\n    --------\n    classifiers: https://pypi.python.org/pypi?%3Aaction=list_classifiers\n    \"\"\"\n\n    def __init__(self, conf_file):\n        yaml = YAML(typ='safe')\n        yaml.indent(mapping=2, sequence=4, offset=2)\n        with open(conf_file, 'r') as f:\n            self._info = yaml.load(f)\n        self.name = __package__\n\n    @staticmethod\n    def requirements(filename=\"requirements.txt\"):\n        \"\"\"\n        Return requirements list from a text file.\n\n        Parameters\n        ----------\n        filename: str\n            Name of requirement file.\n\n        Returns\n        -------\n            str-list\n        \"\"\"\n        try:\n            require = list()\n            f = open(filename, \"rb\")\n            for line in f.read().decode(\"utf-8\").split(\"\\n\"):\n                line = line.strip()\n                if \"#\" in line:\n                    line = line[:line.find(\"#\")].strip()\n                if line:\n                    require.append(line)\n        except IOError:\n            print(\"'{}' not found!\".format(filename))\n            require = list()\n\n        return require\n\n    def __getattr__(self, item: str):\n        try:\n            return self._info[item]\n        except KeyError:\n            return None\n\n\nif __name__ == \"__main__\":\n    # --- Automatically generate setup parameters ---\n    cwd = Path(__file__).parent / __package__ / 'conf.yml'\n    package = PackageInfo(str(cwd))\n\n    # Your package name\n    PKG_NAME = package.name\n\n    # Your GitHub user name\n    GITHUB_USERNAME = package.github_username\n\n    # Short description will be the description on PyPI\n    SHORT_DESCRIPTION = package.short_description  # GitHub Short Description\n\n    # Long description will be the body of content on PyPI page\n    LONG_DESCRIPTION = package.long_description\n\n    # Version number, VERY IMPORTANT!\n    VERSION = package.version + package.release\n\n    # Author and Maintainer\n    AUTHOR = package.author\n\n    # Author email\n    AUTHOR_EMAIL = package.author_email\n\n    MAINTAINER = package.maintainer\n\n    MAINTAINER_EMAIL = package.maintainer_email\n\n    PACKAGES, INCLUDE_PACKAGE_DATA, PACKAGE_DATA, PY_MODULES = (\n        None,\n        None,\n        None,\n        None,\n    )\n\n    # It's a directory style package\n    if os.path.exists(__file__[:-8] + PKG_NAME):\n        # Include all sub packages in package directory\n        PACKAGES = find_packages(exclude=[\"*.tests\", \"*.tests.*\", \"tests.*\", \"tests\"])\n\n        # Include everything in package directory\n        INCLUDE_PACKAGE_DATA = True\n        PACKAGE_DATA = {\n            \"\": [\"*.*\"],\n        }\n\n    # It's a single script style package\n    elif os.path.exists(__file__[:-8] + PKG_NAME + \".py\"):\n        PY_MODULES = [\n            PKG_NAME,\n        ]\n\n    # Project Url\n    GITHUB_URL = \"https://github.com/{0}/{1}\".format(GITHUB_USERNAME, PKG_NAME)\n    # Use todays date as GitHub release tag\n    RELEASE_TAG = 'v' + VERSION\n    # Source code download url\n    DOWNLOAD_URL = \"https://github.com/{0}/{1}/archive/{2}.tar.gz\".format(GITHUB_USERNAME, PKG_NAME, RELEASE_TAG)\n\n    LICENSE = package.license or \"'__license__' not found in '%s.__init__.py'!\" % PKG_NAME\n\n    PLATFORMS = [\n        \"Windows\",\n        \"MacOS\",\n        \"Unix\",\n    ]\n\n    CLASSIFIERS = [\n        \"Development Status :: 4 - Beta\",\n        \"Intended Audience :: Science/Research\",\n        \"License :: OSI Approved :: BSD License\",\n        \"Natural Language :: English\",\n        \"Operating System :: Microsoft :: Windows\",\n        \"Operating System :: MacOS\",\n        \"Operating System :: Unix\",\n        \"Programming Language :: Python :: 3.7\",\n        \"Programming Language :: Python :: 3.8\",\n        \"Programming Language :: Python :: 3.9\",\n    ]\n\n    # Read requirements.txt, ignore comments\n    INSTALL_REQUIRES = PackageInfo.requirements()\n    SETUP_REQUIRES = ['pytest-runner', 'ruamel.yaml']\n    TESTS_REQUIRE = ['pytest']\n    setup(python_requires='~=3.7',\n          name=PKG_NAME,\n          description=SHORT_DESCRIPTION,\n          long_description=LONG_DESCRIPTION,\n          version=VERSION,\n          author=AUTHOR,\n          author_email=AUTHOR_EMAIL,\n          maintainer=MAINTAINER,\n          maintainer_email=MAINTAINER_EMAIL,\n          packages=PACKAGES,\n          include_package_data=INCLUDE_PACKAGE_DATA,\n          package_data=PACKAGE_DATA,\n          py_modules=PY_MODULES,\n          url=GITHUB_URL,\n          download_url=DOWNLOAD_URL,\n          classifiers=CLASSIFIERS,\n          platforms=PLATFORMS,\n          license=LICENSE,\n          setup_requires=SETUP_REQUIRES,\n          install_requires=INSTALL_REQUIRES,\n          tests_require=TESTS_REQUIRE)\n"
  },
  {
    "path": "tests/contrib/descriptor/test_mordred.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport pandas as pd\nimport pytest\nfrom mordred._base.pandas_module import MordredDataFrame\nfrom rdkit import Chem\n\nfrom xenonpy.contrib.extend_descriptors.descriptor import Mordred2DDescriptor\n\n\n@pytest.fixture(scope='module')\ndef data():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    smis = ['C(C(O)C1(O))C(CO)OC1O',\n            'CC(C1=CC=CC=C1)CC(C2=CC=CC=C2)CC(C3=CC=CC=C3)CC(C4=CC=CC=C4)',\n            ' CC(C)CC(C)CC(C)',\n            'C(F)C(F)(F)']\n\n    mols = [Chem.MolFromSmiles(s) for s in smis]\n\n    err_smis = ['C(C(O)C1(O))C(CO)OC1O',\n                'CC(C1=CC=CC=C1)CC(C2=CC=CC=C2)CC(C3=CC=',\n                'Ccccccc',\n                'C(F)C(F)(F)']\n    yield dict(smis=smis, mols=mols, err_smis=err_smis)\n\n    print('test over')\n\n\ndef test_mordred_1(data):\n    mordred = Mordred2DDescriptor()\n    desc = mordred.transform(data['smis'])\n    assert isinstance(desc, MordredDataFrame)\n\n    mordred = Mordred2DDescriptor(return_type='df')\n    desc = mordred.transform(data['smis'])\n    assert isinstance(desc, pd.DataFrame)\n\n\ndef test_mordred_2(data):\n    mordred = Mordred2DDescriptor()\n    desc = mordred.transform(data['mols'])\n    assert isinstance(desc, MordredDataFrame)\n\n\ndef test_mordred_3(data):\n    mordred = Mordred2DDescriptor()\n    with pytest.raises(ValueError):\n        mordred.transform(data['err_smis'])\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/contrib/ismd/test_reactant_pool.py",
    "content": "#!/usr/bin/env python3\n# -*- coding: utf-8 -*-\n\"\"\"\nCreated on Tue Dec  1 00:39:20 2020\n\n@author: qiz\n\"\"\"\n\nimport pytest\nimport pandas as pd\nfrom xenonpy.contrib.ismd import ReactantPool\nfrom xenonpy.contrib.ismd.reactant_pool import NotSquareError, SimPoolnotmatchError, ReactantNotInPoolError, NoSampleError\n\n\ndef test_NotSquareError():\n\n    reactant_pool = pd.DataFrame({\n        \"id\": [0, 1, 2, 3, 4],\n        \"SMILES\": [\n            \"O=C(Cl)Oc1ccc(Cc2ccc(C(F)(F)F)cc2)cc1\", \"CC(NC(=O)OCc1ccccc1)C(C)NC(=O)c1ccccc1O\", \"OC[C@H]1NCC[C@@H]1O\",\n            \"C#CCCN1C(=O)c2ccccc2C1=O\", \"CC(=O)OCCS(=O)(=O)Cl\"\n        ]\n    })\n    sim_df = pd.DataFrame(data=[[1, 2, 3], [4, 5, 6]], columns=['0', '1', '2'])\n    with pytest.raises(NotSquareError):\n        ReactantPool(pool_df=reactant_pool, sim_df=sim_df, pool_smiles_col='SMILES')\n\n\ndef test_SimPoolnotmatchError():\n\n    reactant_pool = pd.DataFrame({\n        \"id\": [0, 1, 2, 3, 4],\n        \"SMILES\": [\n            \"O=C(Cl)Oc1ccc(Cc2ccc(C(F)(F)F)cc2)cc1\", \"CC(NC(=O)OCc1ccccc1)C(C)NC(=O)c1ccccc1O\", \"OC[C@H]1NCC[C@@H]1O\",\n            \"C#CCCN1C(=O)c2ccccc2C1=O\", \"CC(=O)OCCS(=O)(=O)Cl\"\n        ]\n    })\n    sim_df = pd.DataFrame(data=[[1, 2, 3], [4, 5, 6], [7, 8, 9]], columns=['0', '1', '2'])\n    with pytest.raises(SimPoolnotmatchError):\n        ReactantPool(pool_df=reactant_pool, sim_df=sim_df, pool_smiles_col='SMILES')\n\n\ndef test_ReactantNotInPoolError():\n    reactant_pool = pd.DataFrame({\n        \"id\": [0, 1, 2],\n        \"SMILES\": [\n            \"O=C(Cl)Oc1ccc(Cc2ccc(C(F)(F)F)cc2)cc1\", \"CC(NC(=O)OCc1ccccc1)C(C)NC(=O)c1ccccc1O\", \"OC[C@H]1NCC[C@@H]1O\"\n        ]\n    })\n    sim_df = pd.DataFrame(data=[[1, 2, 3], [4, 5, 6], [7, 8, 9]], columns=['0', '1', '2'])\n    reactant_pool = ReactantPool(pool_df=reactant_pool, sim_df=sim_df, pool_smiles_col='SMILES')\n    with pytest.raises(ReactantNotInPoolError):\n        reactant_pool.index2sim(5)\n\n\ndef test_NoSampleError():\n    reactant_pool = pd.DataFrame({\n        \"id\": [0, 1, 2],\n        \"SMILES\": [\n            \"O=C(Cl)Oc1ccc(Cc2ccc(C(F)(F)F)cc2)cc1\", \"CC(NC(=O)OCc1ccccc1)C(C)NC(=O)c1ccccc1O\", \"OC[C@H]1NCC[C@@H]1O\"\n        ]\n    })\n    sim_df = pd.DataFrame(data=[[1, 2, 3], [4, 5, 6], [7, 8, 9]], columns=['0', '1', '2'])\n    reactant_pool = ReactantPool(pool_df=reactant_pool, sim_df=sim_df, pool_smiles_col='SMILES')\n    init_samples = pd.DataFrame({'reactant_idx': [], 'reactant_smiles': [], 'product_smiles': []})\n    with pytest.raises(NoSampleError):\n        reactant_pool.proposal(init_samples)\n\n\nclass Reactor():\n\n    def __init__(self):\n        \"\"\"\n        A chemical reaction prediction model\n        ----------\n        Parameters:\n            model : A molecular transformer model for reaction prediction\n        \"\"\"\n\n    def react(self, reactant_list) -> list:\n        \"\"\"\n        Tokenize a SMILES molecule or reaction\n        ----------\n        Parameters:\n            reactant_list : list of reactant \n        Returns:\n            product_list: all_predictions is a list of `batch_size` lists of `n_best` predictions\n        \"\"\"\n        product_list = [r.replace('.', '') for r in reactant_list]\n        return product_list\n\n\ndef test_poolAssignment():\n\n    reactant_pool = pd.DataFrame({\"id\": [0, 1, 2], \"SMILES\": [\"C\", \"O\", \"N\"]})\n    sim_df = pd.DataFrame(data=[[1, 0.7, 0.2], [0.7, 1, 0], [0.2, 0, 1]], columns=[0, 1, 2])\n    fake_reactor = Reactor()\n    test_pool = ReactantPool(pool_df=reactant_pool, sim_df=sim_df, reactor=fake_reactor, pool_smiles_col='SMILES')\n    assert test_pool._pool_smiles_col in test_pool._pool_df\n\n\ndef test_sampleAssignment():\n\n    reactant_pool = pd.DataFrame({\"id\": [0, 1, 2], \"SMILES\": [\"C\", \"O\", \"N\"]})\n    sim_df = pd.DataFrame(data=[[1, 0.7, 0.2], [0.7, 1, 0], [0.2, 0, 1]], columns=[0, 1, 2])\n    fake_reactor = Reactor()\n    test_pool = ReactantPool(pool_df=reactant_pool,\n                             sim_df=sim_df,\n                             reactor=fake_reactor,\n                             pool_smiles_col='SMILES',\n                             sample_reactant_idx_col='reactant_idx',\n                             sample_reactant_smiles_col='reactant_smiles',\n                             sample_product_smiles_col='product_smiles')\n    sample_df = pd.DataFrame({\n        'reactant_idx': [[2, 1], [0, 1], [1, 0], [0, 2]],\n        'reactant_smiles': [\"N.O\", \"C.O\", \"O.C\", \"C.N\"],\n        'product_smiles': [\"NO\", \"CO\", \"OC\", \"CN\"]\n    })\n\n    assert isinstance(test_pool._pool_df, pd.DataFrame)\n    assert isinstance(test_pool._sim_df, pd.DataFrame)\n    assert test_pool._sample_reactant_idx_col in sample_df\n    assert test_pool._sample_reactant_smiles_col in sample_df\n    assert test_pool._sample_product_smiles_col in sample_df\n\n\ndef test_singleProposal():\n    reactant_pool = pd.DataFrame({\"id\": [0, 1, 2], \"SMILES\": [\"C\", \"O\", \"N\"]})\n    sim_df = pd.DataFrame(data=[[1, 0.7, 0.2], [0.7, 1, 0], [0.2, 0, 1]], columns=[0, 1, 2])\n    fake_reactor = Reactor()\n    test_pool = ReactantPool(pool_df=reactant_pool,\n                             sim_df=sim_df,\n                             reactor=fake_reactor,\n                             pool_smiles_col='SMILES',\n                             sample_reactant_idx_col='reactant_idx',\n                             sample_reactant_smiles_col='reactant_smiles',\n                             sample_product_smiles_col='product_smiles')\n    sample_df = pd.DataFrame({\n        'reactant_idx': [[2, 1], [0], [1, 0, 2], [0, 2]],\n        'reactant_smiles': [\"N.O\", \"C\", \"O.C.N\", \"C.N\"],\n        'product_smiles': [\"NO\", \"C\", \"OCN\", \"CN\"]\n    })\n\n    old_list = [[2, 1], [0], [1, 0, 2], [0, 2]]\n    new_list = [test_pool.single_proposal(reactant) for reactant in sample_df[test_pool._sample_reactant_idx_col]]\n\n    assert len(old_list) == len(new_list)\n    assert all([len(o) == len(n) for o, n in zip(old_list, new_list)])\n\n    def list_only_one_diff(list1, list2):\n        return len(set(list1) - set(list2)) == 1\n\n    assert all([list_only_one_diff(o, n) for o, n in zip(old_list, new_list)])\n\n\ndef test_reactant_id2smiles():\n    reactant_pool = pd.DataFrame({\"id\": [0, 1, 2], \"SMILES\": [\"C\", \"O\", \"N\"]})\n    sim_df = pd.DataFrame(data=[[1, 0.7, 0.2], [0.7, 1, 0], [0.2, 0, 1]], columns=[0, 1, 2])\n    fake_reactor = Reactor()\n    test_pool = ReactantPool(pool_df=reactant_pool,\n                             sim_df=sim_df,\n                             reactor=fake_reactor,\n                             pool_smiles_col='SMILES',\n                             sample_reactant_idx_col='reactant_idx',\n                             sample_reactant_smiles_col='reactant_smiles',\n                             sample_product_smiles_col='product_smiles')\n    sample_df = pd.DataFrame({\n        'reactant_idx': [[2, 1], [0], [1, 0, 2], [0, 2]],\n        'reactant_smiles': [\"\", \"\", \"\", \"\"],\n        'product_smiles': [\"\", \"\", \"\", \"\"]\n    })\n    sample_df[test_pool._sample_reactant_smiles_col] = [\n        test_pool.single_index2reactant(id_str) for id_str in sample_df[test_pool._sample_reactant_idx_col]\n    ]\n\n    assert len(sample_df[test_pool._sample_reactant_idx_col]) == len(sample_df[test_pool._sample_reactant_smiles_col])\n    assert all([\n        len(idx) == len(smi.split(test_pool._splitter)) for idx, smi in zip(\n            sample_df[test_pool._sample_reactant_idx_col], sample_df[test_pool._sample_reactant_smiles_col])\n    ])\n\n\ndef test_reactant2product():\n    reactant_pool = pd.DataFrame({\"id\": [0, 1, 2], \"SMILES\": [\"C\", \"O\", \"N\"]})\n    sim_df = pd.DataFrame(data=[[1, 0.7, 0.2], [0.7, 1, 0], [0.2, 0, 1]], columns=[0, 1, 2])\n    fake_reactor = Reactor()\n    test_pool = ReactantPool(pool_df=reactant_pool,\n                             sim_df=sim_df,\n                             reactor=fake_reactor,\n                             pool_smiles_col='SMILES',\n                             sample_reactant_idx_col='reactant_idx',\n                             sample_reactant_smiles_col='reactant_smiles',\n                             sample_product_smiles_col='product_smiles')\n    sample_df = pd.DataFrame({\n        'reactant_idx': [[2, 1], [0], [1, 0, 2], [0, 2]],\n        'reactant_smiles': [\"N.O\", \"C\", \"O.C.N\", \"C.N\"],\n        'product_smiles': [\"\", \"\", \"\", \"\"]\n    })\n    sample_df[test_pool._sample_product_smiles_col] = test_pool._reactor.react(\n        sample_df[test_pool._sample_reactant_smiles_col])\n\n    assert len(sample_df[test_pool._sample_product_smiles_col]) == len(sample_df[test_pool._sample_reactant_smiles_col])\n\n\ndef test_proposal():\n    reactant_pool = pd.DataFrame({\"id\": [0, 1, 2], \"SMILES\": [\"C\", \"O\", \"N\"]})\n    sim_df = pd.DataFrame(data=[[1, 0.7, 0.2], [0.7, 1, 0], [0.2, 0, 1]], columns=[0, 1, 2])\n    fake_reactor = Reactor()\n    test_pool = ReactantPool(pool_df=reactant_pool,\n                             sim_df=sim_df,\n                             reactor=fake_reactor,\n                             pool_smiles_col='SMILES',\n                             sample_reactant_idx_col='reactant_idx',\n                             sample_reactant_smiles_col='reactant_smiles',\n                             sample_product_smiles_col='product_smiles')\n    old_df = pd.DataFrame({\n        'reactant_idx': [[2, 1], [0], [1, 0, 2], [0, 2]],\n        'reactant_smiles': [\"\", \"\", \"\", \"\"],\n        'product_smiles': [\"\", \"\", \"\", \"\"]\n    })\n    new_df = test_pool.proposal(old_df)\n\n    assert len(old_df) == len(new_df)\n    assert list(old_df) == list(new_df)\n    assert all([\n        oidx != nidx\n        for oidx, nidx in zip(old_df[test_pool._sample_reactant_idx_col], new_df[test_pool._sample_reactant_idx_col])\n    ])\n    assert not new_df.isnull().values.any()\n"
  },
  {
    "path": "tests/contrib/ismd/test_reactor.py",
    "content": "#!/usr/bin/env python3\n# -*- coding: utf-8 -*-\n\"\"\"\nCreated on Tue Dec  1 00:39:20 2020\n\n@author: qiz\n\"\"\"\n\nimport pytest\nfrom xenonpy.contrib.ismd.reactor import smi_tokenizer, SMILESInvalidError\n\n\ndef test_SMILESInvalidError():\n    with pytest.raises(SMILESInvalidError):\n        smi_tokenizer(\"ABCDE\")\n"
  },
  {
    "path": "tests/datatools/ids.txt",
    "content": "mp-862776\nmp-30759\nmp-768076\nmp-9996\nmvc-2470\n"
  },
  {
    "path": "tests/datatools/test_dataset.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom os import remove\nfrom pathlib import Path\n\nimport joblib\nimport numpy as np\nimport pandas as pd\nimport pytest\n\nfrom xenonpy.datatools import Dataset\n\n\n@pytest.fixture(scope='module')\ndef test_data():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    file_path = Path(__file__).parent\n    file_name = 'rename.txt'\n    file_url = 'https://raw.githubusercontent.com/yoshida-lab/XenonPy/master/.github/fetch_test.txt'\n\n    # create data\n    ary = [[1, 2], [3, 4]]\n    df = pd.DataFrame(ary)\n\n    pkl_path = str(file_path / 'test.pkl.z')\n    df_path = str(file_path / 'test.pd.xz')\n    csv_path = str(file_path / 'test.csv')\n\n    joblib.dump(ary, pkl_path)\n    df.to_csv(csv_path)\n    df.to_pickle(df_path)\n\n    yield file_name, file_url, file_path\n\n    tmp = file_path / file_name\n\n    if tmp.exists():\n        remove(str(tmp))\n\n    tmp = file_path / 'fetch_test.txt'\n    if tmp.exists():\n        remove(str(tmp))\n\n    tmp = file_path / 'test.pd'\n    if tmp.exists():\n        remove(str(tmp))\n\n    tmp = file_path / 'test.str'\n    if tmp.exists():\n        remove(str(tmp))\n\n    tmp = file_path / 'test.pkl'\n    if tmp.exists():\n        remove(str(tmp))\n\n    remove(pkl_path)\n    remove(df_path)\n    remove(csv_path)\n\n    print('test over')\n\n\ndef test_dataset_1(test_data):\n    path = Path(__file__).parents[0]\n\n    ds = Dataset()\n    assert ds._backend == 'pandas'\n    assert ds._paths == ('.',)\n    assert ds._prefix == ()\n\n    with pytest.warns(RuntimeWarning):\n        Dataset(str(path), str(path))\n\n    with pytest.raises(RuntimeError):\n        Dataset('no_exist_dir')\n\n    ds = Dataset(str(path), backend='pickle', prefix=('datatools',))\n    assert hasattr(ds, 'datatools_test')\n    tmp = '%s' % ds\n    assert 'Dataset' in tmp\n\n\ndef test_dataset_2(test_data):\n    path = Path(__file__).parents[0]\n\n    ds = Dataset(str(path), backend='pickle')\n    assert hasattr(ds, 'test')\n\n    tmp = ds.test\n    assert isinstance(tmp, list)\n    assert tmp == [[1, 2], [3, 4]]\n\n    tmp = ds.csv\n    assert hasattr(tmp, 'test')\n    tmp = tmp.test\n    assert isinstance(tmp, pd.DataFrame)\n    assert np.all(np.array([[0, 1, 2], [1, 3, 4]]) == tmp.values)\n\n    tmp = ds.csv(str(path / 'test.csv'))\n    assert np.all(np.array([[0, 1, 2], [1, 3, 4]]) == tmp.values)\n\n    tmp = ds.pandas\n    assert hasattr(tmp, 'test')\n    tmp = tmp.test\n    assert isinstance(tmp, pd.DataFrame)\n    assert np.all(np.array([[1, 2], [3, 4]]) == tmp.values)\n\n    tmp = ds.pandas(str(path / 'test.pd.xz'))\n    assert np.all(np.array([[1, 2], [3, 4]]) == tmp.values)\n\n    tmp = ds.pickle\n    assert hasattr(tmp, 'test')\n    tmp = tmp.test\n    assert isinstance(tmp, list)\n    assert [[1, 2], [3, 4]] == tmp\n\n    tmp = ds.pickle(str(path / 'test.pkl.z'))\n    assert [[1, 2], [3, 4]] == tmp\n\n\ndef test_dataset_3(test_data):\n    with pytest.raises(RuntimeError, match='is not a legal path'):\n        Dataset.from_http(test_data[1], 'not_exist')\n\n    tmp = Dataset.from_http(test_data[1], save_to=test_data[2])\n    assert tmp == str(test_data[2] / 'fetch_test.txt')\n    assert Path(tmp).exists()\n    with open(tmp, 'r') as f:\n        assert f.readline() == 'Test xenonpy.utils.Loader._fetch_data'\n\n    tmp = Dataset.from_http(test_data[1], save_to=test_data[2], filename=test_data[0])\n    assert tmp == str(test_data[2] / 'rename.txt')\n    assert Path(tmp).exists()\n    with open(tmp, 'r') as f:\n        assert f.readline() == 'Test xenonpy.utils.Loader._fetch_data'\n\n\ndef test_dataset_4(test_data):\n    file_path = test_data[2]\n    data = pd.DataFrame([[1, 2], [3, 4]])\n\n    file = file_path / 'test.pd'\n    Dataset.to(data, file)\n    assert file.exists()\n\n    file = file_path / 'test.str'\n    Dataset.to(data, str(file))\n    assert file.exists()\n\n    file = file_path / 'test.pkl'\n    Dataset.to(data.values, file)\n    assert file.exists()\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/datatools/test_preset.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom os import remove, getenv\nfrom pathlib import Path\n\nimport pytest\n\nfrom xenonpy import __cfg_root__\nfrom xenonpy.datatools import Preset, preset\n\n\n@pytest.fixture(scope='module')\ndef setup():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    yield\n\n    print('test over')\n\n\ndef test_preset_1():\n    path = Path(__cfg_root__) / 'dataset' / 'elements.pd.xz'\n    if path.exists():\n        remove(str(path))\n\n    with pytest.raises(RuntimeError, match=\"data elements not exist\"):\n        preset.elements\n\n    preset.sync('elements')\n    preset.elements\n\n    path = Path(__cfg_root__) / 'dataset' / 'elements_completed.pd.xz'\n    if path.exists():\n        remove(str(path))\n\n    with pytest.raises(RuntimeError, match=\"data elements_completed not exist\"):\n        preset.elements_completed\n\n    preset.sync('elements_completed')\n    preset.elements_completed\n\n    path = Path(__cfg_root__) / 'dataset' / 'atom_init.pd.xz'\n    if path.exists():\n        remove(str(path))\n\n    with pytest.raises(RuntimeError, match=\"data atom_init not exist\"):\n        preset.atom_init\n\n    preset.sync('atom_init')\n    preset.atom_init\n\n\ndef test_preset_2():\n    assert Preset() is preset\n    e = preset.elements\n    assert 118 == e.shape[0], 'should have 118 elements'\n    assert 74 == e.shape[1], 'should have 74 features'\n\n    e = preset.elements_completed\n    assert 94 == e.shape[0], 'should have 94 completed elements'\n    assert 58 == e.shape[1], 'should have 58 completed features'\n\n\ndef test_preset_3():\n    assert hasattr(preset, 'dataset_elements')\n    e = preset.dataset_elements\n    assert 118 == e.shape[0], 'should have 118 elements'\n    assert 74 == e.shape[1], 'should have 74 features'\n\n    assert hasattr(preset, 'dataset_elements_completed')\n    e = preset.dataset_elements_completed\n    assert 94 == e.shape[0], 'should have 94 completed elements'\n    assert 58 == e.shape[1], 'should have 58 completed features'\n\n\n@pytest.mark.skip(reason=\"fetching test is no need\")\ndef test_preset_4():\n    ids = Path(__file__).parent / 'ids.txt'\n    samples = Path(__cfg_root__) / 'userdata' / 'mp_samples.pd.xz'\n    save_to = Path(__file__).parent / 'tmp.pd.xz'\n\n    with pytest.raises(ValueError):\n        preset.build('no_exist')\n\n    with pytest.raises(RuntimeError):\n        preset.build('mp_samples')\n\n    with pytest.raises(RuntimeError):\n        preset.build('mp_samples')\n\n    key = getenv('api_key')\n    with pytest.raises(ValueError, match='mp_ids'):\n        preset.build('mp_samples', api_key=key, mp_ids=10)\n\n    preset.build('mp_samples', api_key=key, mp_ids=str(ids))\n    assert samples.exists()\n\n    remove(str(samples))\n    preset.build('mp_samples',\n                 api_key=key,\n                 mp_ids=['mp-862776', 'mp-30759', 'mp-768076', 'mp-9996', 'mvc-2470'])\n    assert samples.exists()\n    remove(str(samples))\n\n    preset.build('mp_samples', api_key=key, save_to=str(save_to), mp_ids=str(ids))\n    assert save_to.exists()\n\n    remove(str(save_to))\n    preset.build('mp_samples',\n                 api_key=key,\n                 save_to=str(save_to),\n                 mp_ids=['mp-862776', 'mp-30759', 'mp-768076', 'mp-9996', 'mvc-2470'])\n    assert save_to.exists()\n    remove(str(save_to))\n\n\nif __name__ == '__main__':\n    pytest.main()\n"
  },
  {
    "path": "tests/datatools/test_scaler.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport numpy as np\nimport pandas as pd\nimport pytest\nfrom scipy.stats import boxcox\nfrom sklearn.preprocessing import StandardScaler\n\nfrom xenonpy.datatools.transform import Scaler\n\n\n@pytest.fixture(scope='module')\ndef data():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    # prepare test data\n    raw = np.array([1., 2., 3., 4.])\n    a = raw.reshape(-1, 1)\n    raw_4x1 = a\n    raw_4x4 = np.concatenate((a, a, a, a), axis=1)\n\n    # raw_shift = raw - raw.min() + 1e-9\n    a_, _ = boxcox(raw)\n    a_ = a_.reshape(-1, 1)\n    trans_4x1 = a_\n    trans_4x4 = np.concatenate((a_, a_, a_, a_), axis=1)\n\n    raw_err = np.array([1., 1., 1., 1.])\n    a = raw_err.reshape(-1, 1)\n    raw_err_4x1 = a\n    raw_err_4x4 = np.concatenate((a, a, a, a), axis=1)\n\n    a_ = np.log(raw_err)\n    a_ = a_.reshape(-1, 1)\n    trans_err_4x1 = a_\n    trans_err_4x4 = np.concatenate((a_, a_, a_, a_), axis=1)\n    yield raw_4x1, raw_4x4, trans_4x1, trans_4x4, raw_err_4x1, raw_err_4x4, trans_err_4x1, trans_err_4x4\n\n    print('test over')\n\n\ndef test_scaler_1(data):\n    scaler = Scaler()\n    assert scaler.transform([1, 2, 3, 4]) == [1, 2, 3, 4]\n\n    raw_4x4 = pd.DataFrame(data[1], index=list('abcd'), columns=list('jklm'))\n    ret = scaler.min_max().fit_transform(raw_4x4)\n    assert isinstance(ret, pd.DataFrame)\n    assert ret.index.tolist() == list('abcd')\n    assert ret.columns.tolist() == list('jklm')\n\n\ndef test_scaler_2(data):\n    bc = Scaler().box_cox()\n    std = Scaler().standard()\n    bc_std = Scaler().box_cox().standard()\n    bc_trans = bc.fit_transform(data[0])\n    std_trans = std.fit_transform(bc_trans)\n    bc_std_trans = bc_std.fit_transform(data[0])\n    assert np.allclose(bc_trans, data[2])\n    assert np.allclose(std_trans, StandardScaler().fit_transform(bc_trans))\n    assert np.allclose(bc_std_trans, std_trans)\n    inverse = bc_std.inverse_transform(bc_std_trans)\n    assert np.allclose(inverse, data[0])\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/datatools/test_splitter.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport numpy as np\nimport pandas as pd\nimport pytest\nfrom pandas import DataFrame, Series\n\nfrom xenonpy.datatools import Splitter\n\n\n@pytest.fixture(scope='module')\ndef data():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    # prepare test data\n    l = list(range(10))\n    array = np.arange(10)\n    matrix = np.arange(100).reshape(10, 10)\n    df = DataFrame(matrix)\n    se = Series(array)\n    flag = list('abcba') * 2\n\n    yield array, matrix, df, se, flag, l\n\n    print('test over')\n\n\ndef test_init_1():\n    with pytest.raises(RuntimeError, match='<test_size> can be zero only if <cv> is not none'):\n        Splitter(10, test_size=0, k_fold=None)\n\n\ndef test_roll_1():\n    sp = Splitter(10, test_size=0.3, random_state=123456)\n    train, test = sp.split()\n    assert train.size == 7\n    assert test.size == 3\n    train_, test_ = sp.split()\n    assert train_.size == 7\n    assert test_.size == 3\n    assert np.array_equal(train_, train)\n    assert np.array_equal(test_, test)\n\n    sp.roll(random_state=123456)\n    train_, test_ = sp.split()\n    assert train_.size == 7\n    assert test_.size == 3\n    assert np.array_equal(train_, train)\n    assert np.array_equal(test_, test)\n\n    sp.roll()\n    train_, test_ = sp.split()\n    assert not np.array_equal(train_, train)\n    assert not np.array_equal(test_, test)\n\n\ndef test_split_1(data):\n    sp = Splitter(10)\n    with pytest.raises(RuntimeError, match='parameter <cv> must be set'):\n        for _ in sp.cv():\n            pass\n\n    assert sp.size == 10\n    train, test = sp.split()\n    assert train.size == 8\n    assert test.size == 2\n\n    train, test = sp.split(data[0])\n    for d in train:\n        assert d in data[0]\n    for d in test:\n        assert d in data[0]\n\n\ndef test_split_2(data):\n    sp = Splitter(10, test_size=0.1)\n    with pytest.raises(ValueError, match='parameters <arrays> must have size 10 for dim 0'):\n        sp.split(data[1][1:])\n    _, test = sp.split(data[1])\n    assert test[0] in data[1]\n\n\ndef test_split_3(data):\n    sp = Splitter(10)\n    sp.split(data[0])\n    sp.split(data[1])\n    sp.split(data[2])\n    sp.split(data[3])\n    sp.split(data[5])\n\n    with pytest.raises(\n            TypeError,\n            match=\n            \"<arrays> must be list, numpy.ndarray, pandas.DataFrame, or pandas.Series but got <class 'str'>\"\n    ):\n        sp.split('illegal data')\n\n\ndef test_split_4(data):\n    sp = Splitter(10)\n    x, x_, y, y_, z, z_ = sp.split(data[1], data[2], data[3])\n    assert isinstance(x, np.ndarray)\n    assert isinstance(x_, np.ndarray)\n    assert isinstance(y, pd.DataFrame)\n    assert isinstance(y_, pd.DataFrame)\n    assert isinstance(z, pd.Series)\n    assert isinstance(z_, pd.Series)\n\n\ndef test_cv_1(data):\n    sp = Splitter(10, test_size=0, k_fold=5, random_state=123456)\n    with pytest.raises(RuntimeError, match='split action is illegal because `test_size` is none'):\n        sp.split()\n\n    tmp = []\n    for i, (x, x_) in enumerate(sp.cv()):\n        assert x.size == 8\n        assert x_.size == 2\n        assert isinstance(x, np.ndarray)\n        assert isinstance(x_, np.ndarray)\n        tmp.append(x_)\n    assert i == 4\n    tmp = np.concatenate(tmp)\n    assert not np.array_equal(tmp, data[0])\n    tmp = np.sort(tmp)\n    assert np.array_equal(tmp, data[0])\n\n    tmp = []\n    for x, x_ in sp.cv(less_for_train=True):\n        assert x.size == 2\n        assert x_.size == 8\n        tmp.append(x)\n    tmp = np.concatenate(tmp)\n    tmp = np.sort(tmp)\n    assert np.array_equal(tmp, data[0])\n\n\ndef test_cv_2(data):\n    sp = Splitter(10, test_size=0.2, k_fold=4)\n    tmp = []\n    tmp_x_ = []\n    for x, x_, _x_ in sp.cv():\n        assert x.size == 6\n        assert x_.size == 2\n        assert _x_.size == 2\n        assert isinstance(x, np.ndarray)\n        assert isinstance(x_, np.ndarray)\n        assert isinstance(_x_, np.ndarray)\n        tmp_x_.append(_x_)\n        tmp.append(x_)\n    assert np.array_equal(tmp_x_[0], tmp_x_[1])\n    assert np.array_equal(tmp_x_[0], tmp_x_[2])\n    assert np.array_equal(tmp_x_[0], tmp_x_[3])\n    tmp = np.concatenate(tmp)\n    assert tmp.size == 8\n    tmp = np.concatenate([tmp, tmp_x_[0]])\n    tmp = np.sort(tmp)\n    assert np.array_equal(tmp, data[0])\n\n\ndef test_cv_3(data):\n    np.random.seed(123456)\n    sp = Splitter(10, test_size=0, k_fold=data[4])\n    tmp = []\n    for x, x_ in sp.cv():\n        assert isinstance(x, np.ndarray)\n        assert isinstance(x_, np.ndarray)\n        assert x.size + x_.size == 10\n        tmp.append(x_)\n    sizes = np.sort([x.size for x in tmp])\n    assert np.array_equal(sizes, [2, 4, 4])\n    tmp = np.concatenate(tmp)\n    tmp = np.sort(tmp)\n    assert np.array_equal(tmp, data[0])\n\n\ndef test_cv_4(data):\n    sp = Splitter(10, test_size=0, k_fold=5, random_state=123456)\n    tmp = []\n    for _, x_ in sp.cv():\n        tmp.append(x_)\n    tmp = np.concatenate(tmp)\n\n    tmp_ = []\n    for _, x_ in sp.cv():\n        tmp_.append(x_)\n    tmp_ = np.concatenate(tmp_)\n    assert np.array_equal(tmp, tmp_)\n\n    tmp_ = []\n    sp.roll()\n    for _, x_ in sp.cv():\n        tmp_.append(x_)\n    tmp_ = np.concatenate(tmp_)\n    assert not np.array_equal(tmp, tmp_)\n\n\ndef test_cv_5(data):\n    sp = Splitter(10, test_size=0, k_fold=5)\n    for _, x_, _, y_, _, z_ in sp.cv(data[1], data[2], data[3]):\n        assert isinstance(x_, np.ndarray)\n        assert isinstance(y_, pd.DataFrame)\n        assert isinstance(z_, pd.Series)\n        assert x_.size == 20\n        assert y_.size == 20\n        assert z_.size == 2\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/descriptor/1.cif",
    "content": "# generated using pymatgen\ndata_LiP\n_symmetry_space_group_name_H-M   P2_1/c\n_cell_length_a   5.59387161\n_cell_length_b   4.97038519\n_cell_length_c   10.25075070\n_cell_angle_alpha   90.00000000\n_cell_angle_beta   118.15551780\n_cell_angle_gamma   90.00000000\n_symmetry_Int_Tables_number   14\n_chemical_formula_structural   LiP\n_chemical_formula_sum   'Li8 P8'\n_cell_volume   251.28369181\n_cell_formula_units_Z   8\nloop_\n _symmetry_equiv_pos_site_id\n _symmetry_equiv_pos_as_xyz\n  1  'x, y, z'\n  2  '-x, -y, -z'\n  3  '-x, y+1/2, -z+1/2'\n  4  'x, -y+1/2, z+1/2'\nloop_\n _atom_site_type_symbol\n _atom_site_label\n _atom_site_symmetry_multiplicity\n _atom_site_fract_x\n _atom_site_fract_y\n _atom_site_fract_z\n _atom_site_occupancy\n  Li  Li1  4  0.274232  0.658316  0.970214  1\n  Li  Li2  4  0.282992  0.111753  0.170700  1\n  P  P3  4  0.183355  0.605096  0.207084  1\n  P  P4  4  0.196818  0.156027  0.888258  1\n"
  },
  {
    "path": "tests/descriptor/2.cif",
    "content": "# generated using pymatgen\ndata_P2S5\n_symmetry_space_group_name_H-M   P-1\n_cell_length_a   9.67888928\n_cell_length_b   9.82382054\n_cell_length_c   9.82486748\n_cell_angle_alpha   92.89432746\n_cell_angle_beta   109.71183722\n_cell_angle_gamma   100.66057747\n_symmetry_Int_Tables_number   2\n_chemical_formula_structural   P2S5\n_chemical_formula_sum   'P8 S20'\n_cell_volume   857.80483511\n_cell_formula_units_Z   4\nloop_\n _symmetry_equiv_pos_site_id\n _symmetry_equiv_pos_as_xyz\n  1  'x, y, z'\n  2  '-x, -y, -z'\nloop_\n _atom_site_type_symbol\n _atom_site_label\n _atom_site_symmetry_multiplicity\n _atom_site_fract_x\n _atom_site_fract_y\n _atom_site_fract_z\n _atom_site_occupancy\n  P  P1  2  0.077394  0.281371  0.836935  1\n  P  P2  2  0.177140  0.025568  0.341075  1\n  P  P3  2  0.255828  0.812219  0.097467  1\n  P  P4  2  0.261669  0.705713  0.429975  1\n  S  S5  2  0.024578  0.716419  0.003194  1\n  S  S6  2  0.030568  0.608994  0.334269  1\n  S  S7  2  0.053651  0.071717  0.753780  1\n  S  S8  2  0.198430  0.215693  0.416323  1\n  S  S9  2  0.278972  0.021633  0.181198  1\n  S  S10  2  0.283009  0.915060  0.512339  1\n  S  S11  2  0.287214  0.367994  0.923295  1\n  S  S12  2  0.346487  0.808814  0.951137  1\n  S  S13  2  0.357745  0.607022  0.586473  1\n  S  S14  2  0.363210  0.703362  0.269659  1\n"
  },
  {
    "path": "tests/descriptor/test_base_desc.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom multiprocessing import cpu_count\n\nimport numpy as np\nimport pandas as pd\nimport pytest\n\nfrom xenonpy.descriptor.base import BaseDescriptor, BaseFeaturizer\n\n\n@pytest.fixture(scope='module')\ndef data():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    class _FakeFeaturier1(BaseFeaturizer):\n\n        def __init__(self, n_jobs=1):\n            super().__init__(n_jobs=n_jobs)\n\n        def featurize(self, *x, **kwargs):\n            return x[0]\n\n        @property\n        def feature_labels(self):\n            return ['label1']\n\n    class _FakeFeaturier2(BaseFeaturizer):\n\n        def __init__(self, n_jobs=1):\n            super().__init__(n_jobs=n_jobs)\n\n        def featurize(self, *x, **kwargs):\n            return x[0]\n\n        @property\n        def feature_labels(self):\n            return ['label2']\n\n    class _FakeFeaturier3(BaseFeaturizer):\n\n        def __init__(self, n_jobs=1):\n            super().__init__(n_jobs=n_jobs)\n\n        def featurize(self, *x, **kwargs):\n            return x[0]\n\n        @property\n        def feature_labels(self):\n            return ['label3']\n\n    class _FakeDescriptor(BaseDescriptor):\n\n        def __init__(self, featurizers='all', on_errors='raise'):\n            super().__init__(featurizers=featurizers, on_errors=on_errors)\n            self.g1 = _FakeFeaturier1()\n            self.g1 = _FakeFeaturier2()\n            self.g2 = _FakeFeaturier3()\n\n    # prepare test data\n    yield dict(featurizer=_FakeFeaturier1, descriptor=_FakeDescriptor)\n\n    print('test over')\n\n\ndef test_base_feature_props():\n\n    class _FakeFeaturier(BaseFeaturizer):\n\n        def __init__(self):\n            super().__init__()\n\n        def featurize(self, *x, **kwargs):\n            return x[0]\n\n        @property\n        def feature_labels(self):\n            return ['labels']\n\n    bf = _FakeFeaturier()\n    with pytest.raises(ValueError, match='`on_errors`'):\n        bf.on_errors = 'illegal'\n\n    with pytest.raises(ValueError, match='`return_type`'):\n        bf.return_type = 'illegal'\n\n    # test n_jobs\n    assert bf.n_jobs == cpu_count()\n    bf.n_jobs = 1\n    assert bf.n_jobs == 1\n    bf.n_jobs = 100\n    assert bf.n_jobs == cpu_count()\n\n    # test citation, author\n    assert bf.citations == 'No citations'\n    assert bf.authors == 'anonymous'\n\n\ndef test_base_feature_1(data):\n    featurizer = data['featurizer']()\n    assert isinstance(featurizer, BaseFeaturizer)\n    assert featurizer.n_jobs == 1\n    assert featurizer.featurize(10) == 10\n    assert featurizer.feature_labels == ['label1']\n    with pytest.raises(TypeError):\n        featurizer.fit_transform(56)\n    with pytest.raises(RuntimeError):\n        featurizer.fit_transform(pd.DataFrame([[0, 1], [1, 2]]))\n\n\ndef test_base_feature_2(data):\n    featurizer = data['featurizer']()\n    ret = featurizer.fit_transform([1, 2, 3, 4])\n    assert isinstance(ret, list)\n    ret = featurizer.fit_transform([1, 2, 3, 4], return_type='array')\n    assert isinstance(ret, np.ndarray)\n    ret = featurizer.fit_transform([1, 2, 3, 4], return_type='df')\n    assert isinstance(ret, pd.DataFrame)\n    ret = featurizer.fit_transform(np.array([1, 2, 3, 4]))\n    assert isinstance(ret, np.ndarray)\n    assert (ret == np.array([1, 2, 3, 4])).all()\n    ret = featurizer.fit_transform(pd.Series([1, 2, 3, 4]))\n    assert isinstance(ret, pd.DataFrame)\n    assert (ret.values.ravel() == np.array([1, 2, 3, 4])).all()\n\n\ndef test_base_feature_para(data):\n    featurizer = data['featurizer'](n_jobs=2)\n    featurizer.parallel_verbose = 1\n    ret = featurizer.fit_transform([1, 2, 3, 4])\n    assert isinstance(ret, list)\n    ret = featurizer.fit_transform([1, 2, 3, 4], return_type='array')\n    assert isinstance(ret, np.ndarray)\n    ret = featurizer.fit_transform([1, 2, 3, 4], return_type='df')\n    assert isinstance(ret, pd.DataFrame)\n    ret = featurizer.fit_transform(np.array([1, 2, 3, 4]))\n    assert isinstance(ret, np.ndarray)\n    assert (ret == np.array([1, 2, 3, 4])).all()\n    ret = featurizer.fit_transform(pd.Series([1, 2, 3, 4]))\n    assert isinstance(ret, pd.DataFrame)\n    assert (ret.values.ravel() == np.array([1, 2, 3, 4])).all()\n\n\ndef test_base_feature_3(data):\n\n    class _ErrorFeaturier(BaseFeaturizer):\n\n        def __init__(self, n_jobs=1, on_errors='raise'):\n            super().__init__(n_jobs=n_jobs, on_errors=on_errors)\n\n        def featurize(self, *x):\n            raise ValueError()\n\n        @property\n        def feature_labels(self):\n            return ['labels']\n\n    featurizer = _ErrorFeaturier()\n    assert isinstance(featurizer, BaseFeaturizer)\n    with pytest.raises(ValueError):\n        featurizer.fit_transform([1, 2, 3, 4])\n\n    featurizer = _ErrorFeaturier(on_errors='keep')\n    tmp = featurizer.fit_transform([1, 2, 3, 4])\n    assert np.alltrue([isinstance(e[0], ValueError) for e in tmp])\n\n    featurizer = _ErrorFeaturier(on_errors='nan')\n    tmp = featurizer.fit_transform([1, 2, 3, 4])\n    assert np.alltrue([np.isnan(e[0]) for e in tmp])\n\n\ndef test_base_feature_4(data):\n    featurizer = data['featurizer']()\n    tmp_in = pd.DataFrame([[11, 12], [21, 22], [31, 32], [41, 42]])\n    ret = featurizer.transform(tmp_in, target_col=0)\n    assert isinstance(ret, pd.DataFrame)\n    assert (ret.values.ravel() == np.array([11, 21, 31, 41])).all()\n    ret = featurizer.transform(tmp_in, return_type='array', target_col=0)\n    assert isinstance(ret, np.ndarray)\n    ret = featurizer.transform(tmp_in, return_type='df', target_col=0)\n    assert isinstance(ret, pd.DataFrame)\n    ret = featurizer.transform(tmp_in, target_col=1)\n    assert isinstance(ret, pd.DataFrame)\n    assert (ret.values.ravel() == np.array([12, 22, 32, 42])).all()\n\n\ndef test_base_descriptor_1(data):\n    bd = BaseDescriptor()\n\n    # test n_jobs\n    assert bd.elapsed == 0\n\n    with pytest.raises(NotImplementedError, match='no featurizers'):\n        bd.feature_labels\n\n    # test featurizers list\n    assert hasattr(bd, '__featurizers__')\n    assert not bd.__featurizer_sets__\n\n    with pytest.raises(ValueError, match='`on_errors`'):\n        bd.on_errors = 'illegal'\n\n\ndef test_base_descriptor_2(data):\n    bd = data['descriptor']()\n    assert len(bd.all_featurizers) == 3\n    assert 'g1' in bd.__featurizer_sets__\n    assert 'g2' in bd.__featurizer_sets__\n    assert bd.feature_labels == (('g1', ['label1', 'label2']), ('g2', [\n        'label3',\n    ]))\n\n    assert bd.on_errors == 'raise'\n    assert bd.__featurizer_sets__['g1'][0].on_errors == 'raise'\n    bd.set_params(on_errors='nan')\n    assert bd.on_errors == 'nan'\n    assert bd.__featurizer_sets__['g1'][0].on_errors == 'nan'\n\n\ndef test_base_descriptor_3(data):\n    bd = data['descriptor']()\n    with pytest.raises(TypeError):\n        bd.fit([1, 2, 3, 4]),\n\n\ndef test_base_descriptor_4(data):\n    ff = data['featurizer']\n\n    class FakeDescriptor(BaseDescriptor):\n\n        def __init__(self):\n            super().__init__()\n            self.g1 = ff()\n            self.g1 = ff()\n\n    with pytest.raises(RuntimeError):\n        FakeDescriptor()\n\n    class FakeDescriptor(BaseDescriptor):\n\n        def __init__(self):\n            super().__init__()\n            self.g1 = ff()\n\n    bd = FakeDescriptor()\n    assert bd.feature_labels == ['label1']\n\n\ndef test_base_descriptor_5(data):\n    bd = data['descriptor']()\n    x = pd.DataFrame({'g1': [1, 2, 3, 4], 'g3': [10, 20, 30, 40]})\n    tmp = bd.fit_transform(x)\n    assert isinstance(tmp, pd.DataFrame)\n    assert np.all(tmp.values == np.array([[1, 1], [2, 2], [3, 3], [4, 4]]))\n\n    x = pd.Series([1, 2, 3, 4], name='g1')\n    tmp = bd.transform(x)\n    assert isinstance(tmp, pd.DataFrame)\n    assert np.all(tmp.values == np.array([[1, 1], [2, 2], [3, 3], [4, 4]]))\n\n\ndef test_base_descriptor_6(data):\n    bd = data['descriptor']()\n    x = pd.DataFrame({'g3': [1, 2, 3, 4], 'g4': [1, 2, 3, 4]})\n    with pytest.warns(UserWarning):\n        bd.fit(x)\n    with pytest.warns(UserWarning):\n        bd.transform(x, target_col='g3')\n    bd.fit(x, g1='g3', g2='g4')\n    bd.transform(x)\n\n    x = pd.DataFrame({'g1': [1, 2, 3, 4], 'g2': [1, 2, 3, 4]})\n    with pytest.warns(UserWarning):\n        bd.transform(x, target_col='g1')\n    bd.transform(x, g3='g1', g4='g2')\n    with pytest.warns(UserWarning):\n        bd.transform(x, target_col='g2')\n    bd.fit_transform(x, g3='g1', g4='g2')\n\n\ndef test_base_descriptor_7(data):\n    # after parallel function in BaseFeaturizer is updated to handle pd.DataFrame (loop rows),\n    # target_col parameters can be deleted in this test\n    bd = data['descriptor']()\n    x = pd.Series([1, 2, 3, 4], name='g3')\n    with pytest.warns(UserWarning):\n        bd.fit(x)\n    with pytest.warns(UserWarning):\n        bd.transform(x, target_col='g3')\n    bd.fit(x, g1='g3')\n    bd.transform(x, target_col='g3')\n\n    x = pd.Series([1, 2, 3, 4], name='g1')\n    print(type(x))\n    with pytest.warns(UserWarning):\n        bd.transform(x, target_col='g1')\n    bd.transform(x, g3='g1')\n    with pytest.warns(UserWarning):\n        bd.transform(x, target_col='g1')\n    bd.fit_transform(x, g3='g1')\n\n\ndef test_base_descriptor_8(data):\n    x = pd.DataFrame({'g1': [1, 2, 3, 4], 'g2': [10, 20, 30, 40]})\n\n    bd = data['descriptor'](featurizers='_FakeFeaturier1')\n    tmp = bd.transform(x)\n    assert bd.featurizers == ('_FakeFeaturier1',)\n    assert tmp.shape == (4, 1)\n    assert tmp.columns == ['label1']\n    assert np.all(tmp.values == np.array([[1], [2], [3], [4]]))\n\n    bd = data['descriptor'](featurizers=['_FakeFeaturier3'])\n    tmp = bd.transform(x)\n    assert bd.featurizers == ('_FakeFeaturier3',)\n    assert tmp.shape == (4, 1)\n    assert tmp.columns == ['label3']\n    assert np.all(tmp.values == np.array([[10], [20], [30], [40]]))\n\n    bd = data['descriptor'](featurizers=['_FakeFeaturier1', '_FakeFeaturier3'])\n    tmp = bd.transform(x)\n    assert tmp.shape == (4, 2)\n    assert tmp.columns.tolist() == ['label1', 'label3']\n    assert bd.featurizers == ('_FakeFeaturier1', '_FakeFeaturier3')\n    assert np.all(tmp.values == np.array([[1, 10], [2, 20], [3, 30], [4, 40]]))\n\n    bd = data['descriptor']()\n    # use all featurizers by default\n    tmp = bd.fit_transform(x)\n    assert tmp.shape == (4, 3)\n    assert tmp.columns.tolist() == ['label1', 'label2', 'label3']\n    assert np.all(tmp.values == np.array([[1, 1, 10], [2, 2, 20], [3, 3, 30], [4, 4, 40]]))\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/descriptor/test_crystal_graph.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom os import getenv\nfrom pathlib import Path\n\nimport pandas as pd\nimport pytest\nimport torch\nfrom pymatgen.core import Structure as pmg_S\n\nfrom xenonpy.descriptor import CrystalGraphFeaturizer\nfrom xenonpy.datatools import preset\n\npytestmark = pytest.mark.skipif(getenv('TRAVIS_OS_NAME') == 'osx',\n                                reason=\"no way of currently testing this, skipping tests\")\n\n\n@pytest.fixture(scope='module')\ndef data():\n    preset.sync('atom_init')\n\n    # prepare path\n    pwd = Path(__file__).parent\n    cif1 = pmg_S.from_file(str(pwd / '1.cif'))\n    cif2 = pmg_S.from_file(str(pwd / '2.cif'))\n\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    cifs = pd.Series([cif1, cif2], name='structure')\n    yield cifs\n\n    print('test over')\n\n\ndef test_crystal_1(data):\n    cg = CrystalGraphFeaturizer()\n    assert cg.feature_labels == ['atom_feature', 'neighbor_feature', 'neighbor_idx']\n\n    tmp = cg.node_features(data[0])\n    assert isinstance(tmp, torch.Tensor)\n    assert tmp.shape == (16, 92)\n\n    edges, ids = cg.edge_features(data[0])\n    assert isinstance(edges, torch.Tensor)\n    assert edges.shape == (16, 12, 41)\n\n    assert isinstance(ids, torch.Tensor)\n    assert ids.shape == (16, 12)\n\n\n#\n# def test_crystal_2(data):\n#     cg = CrystalGraphFeaturizer(max_num_nbr=15, radius=10, atom_feature='elements')\n#\n#     tmp = cg.node_features(data[0])\n#     assert isinstance(tmp, torch.Tensor)\n#     assert tmp.shape == (16, 58)\n#\n#     edges, ids = cg.edge_features(data[0])\n#     assert isinstance(edges, torch.Tensor)\n#     assert edges.shape == (16, 15, 51)\n#\n#     assert isinstance(ids, torch.Tensor)\n#     assert ids.shape == (16, 15)\n#\n#\n# def test_crystal_3(data):\n#     cg = CrystalGraphFeaturizer()\n#     tmp = cg.transform(data)\n#\n#     assert isinstance(tmp, pd.DataFrame)\n#     assert tmp.shape == (2, 3)\n#     assert tmp.values[0, 0].shape == (16, 92)\n#     assert tmp.values[0, 1].shape == (16, 12, 41)\n#     assert tmp.values[0, 2].shape == (16, 12)\n#\n#\n# def test_crystal_4(data):\n#     cg = CrystalGraphFeaturizer(atom_feature=lambda s: [1, 2, 3, 4], n_jobs=1)\n#     tmp = cg.transform(data)\n#\n#     assert isinstance(tmp, pd.DataFrame)\n#     assert tmp.shape == (2, 3)\n#     assert tmp.values[0, 0][0].numpy().tolist() == [1, 2, 3, 4]\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/descriptor/test_elemental.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport numpy as np\nimport pandas as pd\nimport pytest\n\nfrom xenonpy.descriptor import Compositions, Counting\nfrom xenonpy.descriptor.base import BaseCompositionFeaturizer\n\n\ndef test_compositional_feature_1():\n\n    class FakeFeaturizer(BaseCompositionFeaturizer):\n\n        @property\n        def feature_labels(self):\n            return ['min:' + s for s in self._elements]\n\n        def mix_function(self, elems, nums):\n            elems_ = self._elements.loc[elems, :]\n            w_ = nums / np.sum(nums)\n            return w_.dot(elems_)\n\n    desc = FakeFeaturizer(n_jobs=1)\n    tmp = desc.fit_transform([{'H': 2}])\n\n    assert isinstance(tmp, list)\n\n    with pytest.raises(KeyError):\n        desc.fit_transform([{'Bl': 2}])\n\n    desc = FakeFeaturizer(n_jobs=1, on_errors='nan')\n    tmp = desc.fit_transform([{'Bl': 2}])\n    assert np.all(np.isnan(tmp[0]))\n\n\ndef test_counting_feature_1():\n    comps = [{'H': 2, 'He': 1}, {'Li': 1}]\n    counting = Counting(return_type='array')\n    tmp = counting.transform(comps)\n    assert tmp.shape == (2, 94)\n\n    assert np.all(tmp[0, :2] == np.array([2, 1]))\n    assert np.all(tmp[0, 2:] == np.zeros(92))\n    assert np.all(tmp[1, :3] == np.array([0, 0, 1]))\n\n    ohv = Counting(return_type='array', one_hot_vec=True)\n    tmp = ohv.transform(comps)\n    assert tmp.shape == (2, 94)\n\n    assert np.all(tmp[0, :2] == np.array([1, 1]))\n    assert np.all(tmp[0, 2:] == np.zeros(92))\n    assert np.all(tmp[1, :3] == np.array([0, 0, 1]))\n\n\ndef test_comp_descriptor_1():\n    desc = Compositions(n_jobs=1)\n\n    desc.fit_transform(pd.Series([{'H': 2}], name='composition'))\n    desc.fit_transform(pd.Series([{'H': 2}], name='other'))\n\n    tmp1 = desc.fit_transform(pd.Series([{'H': 2}], name='other'), composition='other')\n    tmp2 = desc.fit_transform([{'H': 2}])\n\n    assert tmp1.shape == (1, 290)\n    assert isinstance(tmp1, pd.DataFrame)\n    assert isinstance(tmp2, pd.DataFrame)\n\n    assert np.all(tmp1.values == tmp2.values)\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/descriptor/test_fingerprint.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport numpy as np\nimport pandas as pd\nimport pytest\nfrom rdkit import Chem\n\nfrom xenonpy.descriptor import ECFP, FCFP, AtomPairFP, RDKitFP, MACCS, Fingerprints\n\n\n@pytest.fixture(scope='module')\ndef data():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    smis = ['C(C(O)C1(O))C(CO)OC1O',\n            'CC(C1=CC=CC=C1)CC(C2=CC=CC=C2)CC(C3=CC=CC=C3)CC(C4=CC=CC=C4)',\n            ' CC(C)CC(C)CC(C)',\n            'C(F)C(F)(F)']\n\n    mols = [Chem.MolFromSmiles(s) for s in smis]\n\n    err_smis = ['C(C(O)C1(O))C(CO)OC1O',\n                'CC(C1=CC=CC=C1)CC(C2=CC=CC=C2)CC(C3=CC=',\n                'Ccccccc',\n                'C(F)C(F)(F)']\n    yield dict(smis=smis, mols=mols, err_smis=err_smis)\n\n    print('test over')\n\n\ndef test_ecfp_1(data):\n    fps = ECFP(n_jobs=1)\n    fps.transform(data['mols'])\n\n    with pytest.raises(TypeError):\n        fps.transform(data['smis'])\n\n\ndef test_ecfp_2(data):\n    fps = ECFP(n_jobs=1, input_type='smiles')\n    with pytest.raises(TypeError):\n        fps.transform(data['mols'])\n\n    fps.transform(data['smis'])\n\n\ndef test_ecfp_3(data):\n    fps = ECFP(n_jobs=1, input_type='any')\n    fps.transform(data['mols'] + data['smis'])\n\n\ndef test_ecfp_4(data):\n    fps = ECFP(n_jobs=1, input_type='any')\n    with pytest.raises(ValueError):\n        fps.transform(data['err_smis'])\n\n    fps = ECFP(n_jobs=1, input_type='any', on_errors='nan')\n    ret = fps.transform(data['err_smis'])\n    assert pd.DataFrame(data=ret).shape == (4, 2048)\n    assert np.isnan(ret[1][10])\n    assert np.isnan(ret[2][20])\n\n\ndef test_fcfp_1(data):\n    fps = FCFP(n_jobs=1)\n    fps.transform(data['mols'])\n\n    with pytest.raises(TypeError):\n        fps.transform(data['smis'])\n\n\ndef test_fcfp_2(data):\n    fps = FCFP(n_jobs=1, input_type='smiles')\n    with pytest.raises(TypeError):\n        fps.transform(data['mols'])\n\n    fps.transform(data['smis'])\n\n\ndef test_fcfp_3(data):\n    fps = FCFP(n_jobs=1, input_type='any')\n    fps.transform(data['mols'] + data['smis'])\n\n\ndef test_fcfp_4(data):\n    fps = FCFP(n_jobs=1, input_type='any')\n    with pytest.raises(ValueError):\n        fps.transform(data['err_smis'])\n\n    fps = FCFP(n_jobs=1, input_type='any', on_errors='nan')\n    ret = fps.transform(data['err_smis'])\n    assert pd.DataFrame(data=ret).shape == (4, 2048)\n    assert np.isnan(ret[1][10])\n    assert np.isnan(ret[2][20])\n\n\ndef test_apfp_1(data):\n    fps = AtomPairFP(n_jobs=1)\n    fps.transform(data['mols'])\n\n    with pytest.raises(TypeError):\n        fps.transform(data['smis'])\n\n\ndef test_apfp_2(data):\n    fps = AtomPairFP(n_jobs=1, input_type='smiles')\n    with pytest.raises(TypeError):\n        fps.transform(data['mols'])\n\n    fps.transform(data['smis'])\n\n\ndef test_apfp_3(data):\n    fps = AtomPairFP(n_jobs=1, input_type='any')\n    fps.transform(data['mols'] + data['smis'])\n\n\ndef test_apfp_4(data):\n    fps = AtomPairFP(n_jobs=1, input_type='any')\n    with pytest.raises(ValueError):\n        fps.transform(data['err_smis'])\n\n    fps = AtomPairFP(n_jobs=1, input_type='any', on_errors='nan')\n    ret = fps.transform(data['err_smis'])\n    assert pd.DataFrame(data=ret).shape == (4, 2048)\n    assert np.isnan(ret[1][10])\n    assert np.isnan(ret[2][20])\n\n\ndef test_rdfp_1(data):\n    fps = RDKitFP(n_jobs=1)\n    fps.transform(data['mols'])\n\n    with pytest.raises(TypeError):\n        fps.transform(data['smis'])\n\n\ndef test_rdfp_2(data):\n    fps = RDKitFP(n_jobs=1, input_type='smiles')\n    with pytest.raises(TypeError):\n        fps.transform(data['mols'])\n\n    fps.transform(data['smis'])\n\n\ndef test_rdfp_3(data):\n    fps = RDKitFP(n_jobs=1, input_type='any')\n    fps.transform(data['mols'] + data['smis'])\n\n\ndef test_rdfp_4(data):\n    fps = RDKitFP(n_jobs=1, input_type='any')\n    with pytest.raises(ValueError):\n        fps.transform(data['err_smis'])\n\n    fps = RDKitFP(n_jobs=1, input_type='any', on_errors='nan')\n    ret = fps.transform(data['err_smis'])\n    assert pd.DataFrame(data=ret).shape == (4, 2048)\n    assert np.isnan(ret[1][10])\n    assert np.isnan(ret[2][20])\n\n\ndef test_maccs_1(data):\n    fps = MACCS(n_jobs=1)\n    fps.transform(data['mols'])\n\n    with pytest.raises(TypeError):\n        fps.transform(data['smis'])\n\n\ndef test_maccs_2(data):\n    fps = MACCS(n_jobs=1, input_type='smiles')\n    with pytest.raises(TypeError):\n        fps.transform(data['mols'])\n\n    fps.transform(data['smis'])\n\n\ndef test_maccs_3(data):\n    fps = MACCS(n_jobs=1, input_type='any')\n    fps.transform(data['mols'] + data['smis'])\n\n\ndef test_maccs4(data):\n    fps = MACCS(n_jobs=1, input_type='any')\n    with pytest.raises(ValueError):\n        fps.transform(data['err_smis'])\n\n    fps = MACCS(n_jobs=1, input_type='any', on_errors='nan')\n    ret = fps.transform(data['err_smis'])\n    assert pd.DataFrame(data=ret).shape == (4, 167)\n    assert np.isnan(ret[1][10])\n    assert np.isnan(ret[2][20])\n\n\ndef test_fps_1(data):\n    fps = Fingerprints(n_jobs=1)\n    fps.transform(data['mols'])\n\n    with pytest.raises(TypeError):\n        fps.transform(data['smis'])\n\n\ndef test_fps_2(data):\n    fps = Fingerprints(n_jobs=1, input_type='smiles')\n    with pytest.raises(TypeError):\n        fps.transform(data['mols'])\n\n    fps.transform(data['smis'])\n\n\ndef test_fps_3(data):\n    fps = Fingerprints(n_jobs=1, input_type='any')\n    fps.transform(data['mols'] + data['smis'])\n\n\ndef test_fps_4(data):\n    fps = Fingerprints(n_jobs=1, input_type='any')\n    with pytest.raises(ValueError):\n        fps.transform(data['err_smis'])\n\n    fps = Fingerprints(n_jobs=1, input_type='any', on_errors='nan')\n    ret = fps.transform(data['err_smis'])\n    assert isinstance(ret, pd.DataFrame)\n    assert ret.shape == (4, 16759)\n    assert np.isnan(ret.values[1][10])\n    assert np.isnan(ret.values[2][20])\n\n\ndef test_fps_5(data):\n    fps = Fingerprints(featurizers='ECFP', n_jobs=1, input_type='any', on_errors='nan', n_bits=100)\n    ret = fps.transform(data['err_smis'])\n    assert isinstance(ret, pd.DataFrame)\n    assert ret.shape == (4, 100)\n    assert np.isnan(ret.values[1][10])\n    assert np.isnan(ret.values[2][20])\n\n\ndef test_fps_6(data):\n    fps = Fingerprints(n_jobs=1, input_type='any', on_errors='nan', counting=True)\n    ret = fps.transform(data['smis'])\n    assert isinstance(ret, pd.DataFrame)\n    assert ret.shape == (4, 16759)\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/descriptor/test_frozen_feature.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n\nfrom collections import OrderedDict\n\nimport numpy as np\nimport pandas as pd\nimport pytest\nfrom torch import nn\n\nfrom xenonpy.descriptor import FrozenFeaturizer\nfrom xenonpy.model import SequentialLinear\n\n\n@pytest.fixture(scope='module')\ndef data():\n    # prepare path\n    model1 = nn.Sequential(\n        nn.Sequential(OrderedDict(layer=nn.Linear(10, 7), act_func=nn.ReLU())),\n        nn.Sequential(OrderedDict(layer=nn.Linear(7, 4), act_func=nn.ReLU())),\n        nn.Sequential(OrderedDict(layer=nn.Linear(4, 1))),\n    )\n    model2 = SequentialLinear(10, 1, h_neurons=(7, 4))\n    descriptor1 = np.random.rand(10, 10)\n    descriptor2 = np.random.rand(20, 10)\n    index = ['id_' + str(i) for i in range(10)]\n    df = pd.DataFrame(descriptor1, index=index)\n\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    yield model1, descriptor1, df, index, descriptor2, model2\n\n    print('test over')\n\n\ndef test_frozen_featurizer_1(data):\n    ff = FrozenFeaturizer(data[0])\n    ff_features = ff.fit_transform(data[1])\n    assert ff_features.shape == (10, 11)\n    ff_features = ff.fit_transform(data[1], depth=1)\n    assert ff_features.shape == (10, 4)\n    ff_features = ff.fit_transform(data[1])\n    assert ff_features.shape == (10, 11)\n\n    ff = FrozenFeaturizer(data[5])\n    ff_features = ff.fit_transform(data[1])\n    assert ff_features.shape == (10, 11)\n    ff_features = ff.fit_transform(data[1], depth=1)\n    assert ff_features.shape == (10, 4)\n    ff_features = ff.fit_transform(data[1])\n    assert ff_features.shape == (10, 11)\n\n\ndef test_frozen_featurizer_2(data):\n    ff = FrozenFeaturizer(data[0])\n    ff_features = ff.fit_transform(data[2])\n    assert ff_features.shape == (10, 11)\n    assert isinstance(ff_features, pd.DataFrame)\n    assert ff_features.index.tolist() == list(data[3])\n\n    _hlayers = [7, 4]\n    labels = ['L(' + str(i - len(_hlayers)) + ')_' + str(j + 1)\n              for i in range(2)\n              for j in range(_hlayers[i])]\n    assert ff_features.columns.tolist() == list(labels)\n\n    ff = FrozenFeaturizer(data[5])\n    ff_features = ff.fit_transform(data[2])\n    assert ff_features.shape == (10, 11)\n    assert isinstance(ff_features, pd.DataFrame)\n    assert ff_features.index.tolist() == list(data[3])\n\n    _hlayers = [7, 4]\n    labels = ['L(' + str(i - len(_hlayers)) + ')_' + str(j + 1)\n              for i in range(2)\n              for j in range(_hlayers[i])]\n    assert ff_features.columns.tolist() == list(labels)\n\n\ndef test_frozen_featurizer_3(data):\n    ff = FrozenFeaturizer(data[0])\n    with pytest.raises(ValueError):\n        ff.feature_labels\n    ff.fit_transform(data[2])\n    ff.feature_labels\n\n    ff = FrozenFeaturizer(data[5])\n    with pytest.raises(ValueError):\n        ff.feature_labels\n    ff.fit_transform(data[2])\n    ff.feature_labels\n\n\ndef test_frozen_featurizer_4(data):\n    ff = FrozenFeaturizer(data[0])\n    ff_features = ff.fit_transform(data[1])\n    assert ff_features.shape == (10, 11)\n    ff_features = ff.fit_transform(data[4])\n    assert ff_features.shape == (20, 11)\n\n    ff = FrozenFeaturizer(data[5])\n    ff_features = ff.fit_transform(data[1])\n    assert ff_features.shape == (10, 11)\n    ff_features = ff.fit_transform(data[4])\n    assert ff_features.shape == (20, 11)\n\n\ndef test_frozen_featurizer_5(data):\n    ff = FrozenFeaturizer(data[0])\n\n    with pytest.warns(UserWarning, match='is over the max depth of hidden layers starting at the given'):\n        ff_features = ff.fit_transform(data[1], depth=2, n_layer=3)\n        assert ff_features.shape == (10, 11)\n    with pytest.warns(UserWarning, match='is greater than the max depth of hidden layers'):\n        ff_features = ff.fit_transform(data[4], depth=3, n_layer=2)\n        assert ff_features.shape == (20, 11)\n\n    ff = FrozenFeaturizer(data[5])\n    ff_features = ff.transform(data[1], depth=2, return_type='df')\n\n    desc_ori = []\n    for i in [1, 2]:\n        desc_ori.append(ff_features[ff_features.columns[[f'L(-{i})' in s for s in ff_features.columns.values]]])\n\n    desc_new = []\n    for i in [1, 2]:\n        for j in [1, 2]:\n            desc_new.append(ff.transform(data[1], depth=j, n_layer=i, return_type='df'))\n\n    for i in range(2):\n        tmp = desc_new[i] == desc_ori[i]\n        assert all(tmp.all())\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/descriptor/test_structures.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom pathlib import Path\n\nimport pandas as pd\nimport pytest\nfrom pymatgen.core import Structure as pmg_S\n\nfrom xenonpy.descriptor import RadialDistributionFunction, Structures, OrbitalFieldMatrix\n\n\n@pytest.fixture(scope='module')\ndef data():\n    # prepare path\n    pwd = Path(__file__).parent\n    cif1 = pmg_S.from_file(str(pwd / '1.cif'))\n    cif2 = pmg_S.from_file(str(pwd / '2.cif'))\n\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    cifs = pd.Series([cif1, cif2], name='structure')\n    yield cifs\n\n    print('test over')\n\n\ndef test_rdf(data):\n    RadialDistributionFunction().fit_transform(data)\n    assert True\n\n\ndef test_ofm(data):\n    OrbitalFieldMatrix().fit_transform(data)\n    assert True\n\n\ndef test_structure(data):\n    Structures().fit_transform(data)\n    assert True\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/inverse/polymer_test_data.csv",
    "content": ",smiles,bandgap,refractive_index,density,glass_transition_temperature\n0,C([*])C([*])(SCCC),5.2,1.74,1.04,259\n1,C([*])C([*])(C(=O)OCCSCCC#N),5.63,1.73,1.31,232\n2,O([*])C(=O)OC(C=C1)=CC=C1C(C=C2)=CC=C2CC(C=C3)=CC=C3C(C=C4)=CC=C4([*]),3.49,1.88,1.21,413\n3,O([*])CCOCCOCCOCCOC(=O)NCCCCCCNC([*])(=O),6.47,1.66,1.16,265\n4,C([*])C([*])(C(=O)OCC(F)(F)C(F)(F)OC(F)(F)F),6.95,1.61,1.62,225\n5,CC(S1)=CC=C1C(=S)O,2.7,2.01,1.59,416\n6,C([*])(CC)=CCC([*]),5.45,1.65,0.91,222\n7,NC(=O)C1=CC=C(S1)C(=O),2.73,2.06,1.58,375\n8,C([*])C([*])(C)(C(=O)OCCCCCC),5.61,1.66,1.02,265\n9,C(C=C1)=CC=C1C(C=C2)=CC=C2C(C=C3)=CC=C3O,2.97,1.98,1.16,439\n10,C(=O)C1=CC=C(S1)C(C=C2)=CC=C2C(=S),1.45,2.39,1.48,432\n11,C([*])C([*])(C)(C(=O)OC(C)C),5.73,1.67,1.08,348\n12,C([*])C([*])(C)(C(=O)OCCCC),5.62,1.66,1.06,291\n13,CC(C=C1)=CC=C1C(S2)=CC=C2C(=S),2.17,2.12,1.35,433\n14,C([*])C([*])(C(=O)NCCCCCCCC),6.45,1.66,0.98,214\n15,C([*])C([*])(c1ccc(C(C)=O)cc1),3.83,1.79,1.12,373\n16,C([*])(C=C1)=CC=C1C(=O)OCCCCCCOC([*])(=O),4.82,1.77,1.19,301\n17,C([*])C([*])(c1ccc(OCC)cc1),4.51,1.74,1.05,350\n18,C([*])C([*])(c1cc(C)ccc1F),5.1,1.75,1.03,392\n19,C([*])C([*])(c1ccc(Br)cc1),3.16,1.92,1.24,387\n20,C([*])C([*])([Cl])(OC(=O)C),4.97,1.71,1.43,406\n21,C(F)(F)CC(F)(F)C(=S),2.61,1.8,1.75,340\n22,CC(C=C1)=CC=C1C(=S)C2=CC=C(S2),2.58,2.03,1.35,432\n23,CC(=S)NO,2.97,1.91,1.59,332\n24,CC(=O)C1=CC=C(S1)C(=O),2.91,1.94,1.51,367\n25,NC(=O)C(C=C1)=CC=C1O,3.78,1.87,1.34,457\n26,C([*])C([*])(c1ccc(CCCC)cc1),4.69,1.72,0.96,309\n27,C([*])C([*])(C(C)(C)C),7.33,1.62,0.87,334\n28,NC(=S)NC(C=C1)=CC=C1NC(=S)NC(C)COCCOC(C)COCC(C),4.33,1.79,1.22,350\n29,C([*])C([*])(CCC),7.2,1.65,0.87,251\n30,C([*])C([*])(C(=O)N(C)C),5.33,1.67,1.1,368\n31,C([*])C([*])(N3C1=CC=CC=C1C2=CC=CC=C23),3.04,2.15,1.23,466\n32,C(=O)C1=CC=C(S1)OC(=S),1.9,2.14,1.71,420\n33,C([*])C([*])(C1=CC=C(C)C=C1),4.82,1.75,1.0,381\n34,NC(C=C1)=CC=C1C(=O)C2=CC=C(S2),2.34,2.09,1.45,473\n35,C(=O)C1=CC=C(S1)OC2=CC=C(S2),2.7,2.0,1.53,423\n36,NC(=S)C(=O)C(=S),1.36,2.31,1.62,334\n37,N(C1(=O))C(=O)C(=C2)C1=CC(C3(=O))=C2C(=O)N3CCCN(C4(=O))C(=O)C(=C5)C4=CC(C6(=O))=C5C(=O)N6C(C)COC(C),3.33,1.93,1.38,337\n38,C(C=C1)=CC=C1C(S2)=CC=C2OC(=S),2.09,2.22,1.44,434\n39,C(=NC1=C2)OC1=CC(O3)=C2N=C3C(C=C4)=CC=C4,2.53,2.27,1.42,455\n40,C([*])C([*])(C1=C(OCCCC)C=CC(Br)C1),4.59,1.68,1.08,313\n41,N([*])C(=O)CCCCCCCCCCC([*]),6.65,1.65,0.98,316\n42,C([*])C([*])(C(=O)N(C)c1ccccc1),4.02,1.8,1.19,434\n43,COCOCCCO,7.29,1.66,1.14,188\n44,CC(=O)OCC(=O)O,6.26,1.72,1.48,315\n45,CC(=O)C(=S)C(C=C1)=CC=C1,2.32,2.0,1.39,353\n46,C([*])C([*])(C#N)(C(=O)OCCCCCCCC),6.66,1.65,1.1,321\n47,C(S1)=CC=C1C(S2)=CC=C2C(=S)C(S3)=CC=C3C(=O)NC(=O)N,1.9,2.3,1.63,440\n48,C([*])(=O)C(C=C1)=CC=C1C(=O)OC(C=C2)=CC=C2C(C)(C)C(C=C3)=CC=C3O([*]),3.86,1.83,1.22,422\n49,C(=O)C(C=C1)=CC=C1C2=CC=C(S2)O,2.62,2.07,1.37,420\n50,C([*])C([*])(C)(C(=O)OCCC(C)CC(C)(C)C),5.83,1.64,0.99,303\n51,O([*])C(=O)C(C=C1)=CC=C1CCCCC(C=C2)=CC=C2C([*])(=O),4.04,1.81,1.19,346\n52,C([*])CCCOCO([*]),7.42,1.66,1.06,184\n53,C([*])C([*])(C1=C(OCCC)C=CC(Br)C1),4.46,1.7,1.1,322\n54,CCC(=O)C(=S),2.22,1.94,1.58,345\n55,C([*])C([*])(C)(C(=O)OCCC1=CC=CC=C1),4.44,1.73,1.11,327\n56,C([*])C([*])(C(=C)OCC(C#N)CCCCC),6.6,1.64,1.05,348\n57,CC(=S)CC(=S),2.22,1.95,1.7,334\n58,CCC(C=C1)=CC=C1O,4.28,1.78,1.11,339\n59,C([*])([Cl])(F)C([*])(F)(F),3.28,1.77,2.0,357\n60,C(=O)C(C=C1)=CC=C1C(=O)C2=CC=C(S2),2.47,2.06,1.41,416\n61,C([*])C([*])(C)(C(=O)OCC(O)C),5.86,1.67,1.15,363\n62,C([*])C([*])(C(=O)OCCCCSC),4.44,1.73,1.14,205\n63,CCOCCO,6.36,1.66,1.1,207\n64,C([*])C([*])(C(=O)OCCCCCC),5.78,1.66,1.04,203\n65,NC(=O)OC(C=C1)=CC=C1,3.72,1.87,1.43,460\n66,C(C=C1)=CC=C1OC(S2)=CC=C2O,4.01,1.85,1.33,390\n67,C(C=C1)=CC=C1OC(=O)CC(=O)CCO,4.12,1.75,1.29,275\n68,C([*])C([*])(CCCCCCCCCCCCCC),7.71,1.65,0.87,275\n69,C([*])C([*])(C)(C(=O)OCCCCCCCCCCCC),6.54,1.65,0.97,233\n70,C([*])=CC([*])(C1=CC=CC=C1),4.83,1.76,1.06,341\n71,C([*])C([*])(C1=C(F)C=CC(F)=C1),4.94,1.76,1.07,379\n72,C(C=C1)=CC=C1NC(=O)N,3.38,1.98,1.45,525\n73,NC(=O)OC(=O),4.67,1.76,1.66,351\n74,C([*])C([*])(Cl)(C(=O)OC),4.77,1.73,1.43,404\n75,C([*])C([*])(C(=O)OCCSCCCC#N),5.66,1.72,1.26,214\n76,C(C=C1)=CC=C1C(C=C2)=CC=C2C(S3)=CC=C3C(S4)=CC=C4,1.72,2.43,1.23,452\n77,COC(=O)O,6.84,1.72,1.56,347\n78,CC(C=C1)=CC=C1C(S2)=CC=C2C(C=C3)=CC=C3,2.84,2.0,1.16,449\n79,C(F)(F)CC(F)(F)C(C=C1)=CC=C1,4.47,1.73,1.4,326\n80,C(C=C1)=CC=C1C(=S)C(S2)=CC=C2O,2.36,2.07,1.43,431\n81,C(C=C1)=CC=C1C(C=C2)=CC=C2C(=S)O,2.37,2.06,1.28,426\n82,C([*])C([*])(OC(=O)C[Cl]),5.26,1.69,1.43,314\n83,C([*])C([*])(C(=O)OCF),6.16,1.68,1.31,297\n84,N([*])CCCCCCCCC([*])(=O),6.55,1.66,1.01,319\n85,C([*])(C=C1)=CC=C1C(=O)O([*]),3.54,1.87,1.35,414\n86,C([*])C([*])(C(=O)OCCOCC(F)(F)C(F)(F)C(F)(F)F),6.86,1.63,1.6,232\n87,C([*])C([*])(C(=O)Oc1ccccc1C(C)(C)C),4.97,1.7,1.09,352\n88,C([*])C([*])(OCCCCCCCC),6.77,1.65,0.93,202\n89,C([*])(C)=CCC([*]),5.64,1.67,0.92,213\n90,C([*])C([*])(c1ccc(I)cc1),2.72,1.94,1.33,416\n91,O([*])C(C(C2=CC=CC=C2)=C1)=C(C3=CC=CC=C3)C=C1([*]),3.12,1.98,1.16,483\n92,CC(=O)NC(C=C1)=CC=C1,3.94,1.85,1.29,436\n93,C([*])C([*])(Cl)(C(=O)OCC(C)C),5.44,1.69,1.21,351\n94,CNCNC(=O)NC(=O)N,5.34,1.7,1.38,341\n95,C([*])C([*])(C1=CC=C(O)C=C1),4.52,1.78,1.13,415\n96,CC(C=C1)=CC=C1C(=S)O,3.11,1.95,1.33,395\n97,CCCCCOC(=O)NC(=CC=C1(C))C=C1NC(=O)O,4.81,1.78,1.28,353\n98,C([*])C([*])(c1ccc(C(=O)OCCCCCC)cc1),4.68,1.73,1.06,309\n99,C(=O)NC(=O)CNC(=O)ON,5.17,1.74,1.55,362\n100,C(=O)C(C=C1)=CC=C1C(C=C2)=CC=C2O,3.01,1.95,1.26,434\n101,N(C(=O)C1=C2)C(=O)C1=CC=C2C(C(F)(F)(F))(C(F)(F)(F))C(=CC=C3C4(=O))C=C3C(=O)N4C(C)COCCOCCOC(C)COC(C),4.49,1.75,1.33,356\n102,CC(=O)C(C=C1)=CC=C1C(=S),2.41,2.01,1.39,393\n103,C(F)(F)C(F)(F)C(=S)O,3.21,1.72,1.85,337\n104,O([*])CC([*])(C[Cl]),5.04,1.71,1.29,252\n105,C(F)(F)NC(F)(F)C(S1)=CC=C1,3.95,1.76,1.47,313\n106,OC(=O)NC(C=C1)=C(C)C=C1NC(=O)OCCC,4.54,1.81,1.35,372\n107,C([*])CCCCCO([*]),7.46,1.65,0.96,209\n108,C(S1)=CC=C1C(=S)C(S2)=CC=C2O,2.25,2.16,1.62,429\n109,C(S1)=CC=C1C(S2)=CC=C2C(S3)=CC=C3O,1.94,2.36,1.47,425\n110,CCC1=CC=C(S1)O,4.1,1.79,1.25,353\n111,C([*])=CCCC(C)C([*]),6.09,1.65,0.91,276\n112,C([*])C([*])(C(=O)Oc2ccc(c1ccccc1)cc2),3.91,1.84,1.18,379\n113,CCOC(=S)NC(=S)C(C=C1)=CC=C1N,2.62,2.03,1.46,444\n114,NC(=S)C(C=C1)=CC=C1O,2.87,2.01,1.39,413\n115,CCC(=O)C(C=C1)=CC=C1,3.63,1.82,1.16,353\n116,C([*])C([*])(C(C=C1)=CC=C1C(C)(C)C),4.86,1.7,0.96,401\n117,C([*])C([*])(Cl)(C(=O)OC(C)C),5.39,1.67,1.26,375\n118,CCNC1=CC=C(S1),3.61,1.84,1.3,391\n119,C(C=C1)=CC=C1C(C=C2)=CC=C2CC(=S)C(S3)=CC=C3C(=S)CO,2.29,2.03,1.34,432\n120,C([*])C([*])(c1ccc(Cl)c(Cl)c1),2.74,1.91,1.38,406\n121,C([*])C([*])(C)(C(=O)OCCC(C)(C)C),5.88,1.64,1.02,322\n122,NC1=CC=C(S1)NC(=S),2.53,2.24,1.74,420\n123,C([*])(=O)CCCCOC(C=C1)=CC=C1OC(C=C2)=CC=C2C(=O)O([*]),4.49,1.78,1.24,341\n124,N([*])C(=O)CCCCCCCCCCC(=O)NCCCCCC([*]),6.55,1.66,1.01,321\n125,NC(=S)OC(=S),2.36,2.14,1.62,352\n126,C([*])C([*])(C(=O)OC1CCCCC1),6.51,1.63,1.07,309\n127,CNOC(=S),3.35,1.88,1.59,360\n128,C([*])C([*])(C(=O)Oc1ccc(C#N)cc1),4.8,1.75,1.35,360\n129,C(C=C1)=CC=C1C(=O)OCCOC(=O),4.08,1.84,1.34,331\n130,CC(=O)C1=CC=C(S1)O,3.02,1.89,1.46,394\n131,CCOC(=O)NCCO,6.3,1.67,1.25,295\n132,C([*])C([*])(SCC),4.87,1.78,1.09,262\n133,CC(C=C1)=CC=C1OC(C=C2)=CC=C2,4.19,1.82,1.14,418\n134,C([*])C([*])(CC)(C(=O)Oc1ccccc1),4.74,1.74,1.14,349\n135,O([*])C(=O)C(C=C1)=CC=C1C(=O)OCC([*]),4.06,1.84,1.34,335\n136,CNC(C=C1)=CC=C1C2=CC=C(S2),2.89,1.99,1.26,449\n137,C(S1)=CC=C1,0.95,2.81,1.45,404\n138,O([*])C(=O)OC(C=C1)=C([Cl])C=C1C(C)(C)C(C=C2)=CC([Cl])=C2([*]),4.01,1.78,1.34,431\n139,C([*])C([*])(c1ccc(C(C)(C)O)cc1),4.71,1.73,1.04,438\n140,C([*])(C=C1)=CC=C1C(=O)OCC(CC1)CCC1COC([*])(=O),5.06,1.74,1.17,359\n141,C(F)(F)C(F)(F)NC(=S),3.0,1.77,1.81,353\n142,CNC(C=C1)=CC=C1O,4.17,1.84,1.23,411\n143,C([*])C(C)C([*])(=O),5.17,1.69,1.13,331\n144,C([*])CCCC(=O)OCCCCOC([*])(=O),6.59,1.67,1.16,210\n145,C([*])C([*])(CCCCCCC),7.05,1.65,0.87,225\n146,CC(=O)OC(=O),6.07,1.7,1.58,344\n147,C([*])([Cl])([Cl])C([*]),4.21,2.05,1.71,259\n148,C([*])C([*])(C(=O)OCC#N),6.24,1.67,1.42,307\n149,C(=O)C1=CC=C(S1)C2=CC=C(S2)O,2.31,2.18,1.54,434\n150,CCC(=O)C1=CC=C(S1),3.29,1.85,1.33,363\n151,C([*])C([*])(c1ccccc1CO),4.58,1.75,1.09,393\n152,NC1=CC=C(S1)C(=O)C2=CC=C(S2),2.16,2.18,1.63,417\n153,CNC(=O)ONC(=O)NO,5.43,1.7,1.53,337\n154,C(F)(F)C(S1)=CC=C1C(F)(F)C(=S),2.12,1.88,1.64,362\n155,C([*])C([*])(C(=O)OCC(F)(F)F),6.46,1.64,1.49,261\n156,CCC1=CC=C(S1)C(=S),2.36,1.97,1.47,384\n157,CC(F)CC(F),8.2,1.64,1.3,295\n158,CC(C=C1)=CC=C1OC2=CC=C(S2),4.08,1.82,1.23,423\n159,C([*])C([*])(C#N)(C),6.52,1.63,1.18,399\n160,C([*])C([*])(c1ccc(C(C)(O)CCCC)cc1),4.93,1.71,1.0,379\n161,CC(=S)NC(=S),1.88,2.08,1.72,353\n162,C([*])(C(=O)OC)(CC(=O)OC)C([*]),5.38,1.69,1.27,379\n163,C([*])C([*])(c1cc(C(C)C)ccc1C(C)C),4.94,1.71,0.95,365\n164,C([*])C([*])(C(=O)OCCCCCCC),6.57,1.66,1.02,217\n165,C([*])C([*])(c1ccc(COCCCCO)cc1),4.69,1.71,1.06,312\n166,C([*])(C)(CC)C([*]),7.15,1.65,0.87,268\n167,C(=O)C(C=C1)=CC=C1C(=O)C(=S),1.71,2.16,1.55,391\n168,C([*])C([*])(C(=O)OCCOCC),5.66,1.67,1.14,202\n169,C([*])C([*])(COOc1ccccc1Cl),4.16,1.76,1.23,329\n170,C(OC1=C2)=NC1=CC=C2C(=NC3=C4)OC3=CC=C4,2.47,2.27,1.42,447\n171,NC(C=C1)=CC=C1C2=CC=C(S2)C3=CC=C(S3),1.93,2.38,1.41,457\n172,C(F)(F)C(F)(F)CC(C=C1)=CC=C1,4.55,1.73,1.46,353\n173,CNC1=CC=C(S1)C(=S),2.0,2.12,1.63,416\n174,C([*])(C=C1)=CC=C1C(F)(F)C([*])(F)(F),4.26,1.75,1.48,360\n175,CCCOC(=O)CCCCCCCCOC(=O)CCCOC(=O)CCCCCCCCOC(=O),6.87,1.65,1.1,252\n176,NC(C=C1)=CC=C1C(C=C2)=CC=C2C(C=C3)=CC=C3,2.52,2.08,1.19,467\n177,CC(=O)OC1=CC=C(S1),4.25,1.79,1.46,342\n178,C([*])C([*])(C(=O)O),6.36,1.66,1.36,378\n179,C(=O)OC1=CC=C(S1)C(=S),1.76,2.2,1.71,419\n180,C([*])(C(C)C)C([*]),7.08,1.65,0.87,291\n181,NC(C=C1)=CC=C1C(=O)C(C=C2)=CC=C2,2.5,2.01,1.31,471\n182,C([*])C([*])(C#N)(C(=O)OCCCC),5.97,1.66,1.22,379\n183,C([*])C([*])(C)(C(=O)OCCCC#N),5.67,1.66,1.22,356\n184,CNON,5.25,1.67,1.28,270\n185,C(=O)OC(=O)O,5.83,1.62,1.64,341\n186,C(C(O)C1(O))C(CO)OC1O,7.49,1.63,1.31,397\n187,C([*])C([*])(c1ccc(Cl)cc1C),4.01,1.75,1.13,396\n188,CC(S1)=CC=C1C(C=C2)=CC=C2C(=S),2.12,2.12,1.35,443\n189,C(F)(F)C(F)(F)C(=O)O,6.01,1.59,1.84,313\n190,C(C(F)(F)(F))OCC(C(F)(F)(F))OC,7.57,1.6,1.56,257\n191,OC(=O)NC(C=C1)=C(C)C=C1NC(=O)OCCCCCC,4.9,1.76,1.26,344\n192,C(=O)C(C=C1)=CC=C1C(C=C2)=CC=C2C(=S),1.86,2.2,1.32,429\n193,C([*])C([*])(c1ccc(Cl)cc1Cl),2.79,1.91,1.38,409\n194,CC(=S)C(=O)C(=S),0.81,2.2,1.68,345\n195,NC1=CC=C(S1)OC2=CC=C(S2),3.25,2.01,1.59,427\n196,C(F)(F)C(F)(F)C(S1)=CC=C1O,4.07,1.75,1.68,320\n197,C(C=C1)=CC=C1C(C=C2)=CC=C2CO,3.61,1.87,1.14,422\n198,C(F)(F)C(F)(F)C(=O)C(S1)=CC=C1,2.89,1.82,1.69,345\n199,C([*])(C)C([*])(C(=O)OCCN=O),5.78,1.67,1.24,315\n200,N([*])CC(C)(C)CC(C)CCNC(=O)C(C=C1)=CC=C1C([*])(=O),5.18,1.74,1.09,422\n201,O([*])C(=O)C(C=CC=C1)=C1C(=O)OCC([*]),4.12,1.84,1.34,317\n202,CC(=S)C(C=C1)=CC=C1C(=S),1.57,2.14,1.51,419\n203,CCC1=CC=C(S1)C2=CC=C(S2),2.67,1.93,1.29,385\n204,C(F)(F)NC(F)(F)O,8.65,1.59,1.55,265\n205,CNC(=S)O,4.04,1.9,1.6,395\n206,C([*])(C=C1)=CC=C1C(=O)OCCCCCCCCCCOC([*])(=O),5.37,1.74,1.11,294\n207,CCCC(=S),3.13,1.83,1.31,289\n208,C([*])C([*])(c1ccccc1C(=O)OCCC(C)C),4.71,1.74,1.07,344\n209,CNC(C=C1)=CC=C1N,3.6,1.89,1.26,443\n210,C([*])C([*])(C(=O)OCC(CCl)(CCl)CCl),4.33,1.8,1.43,318\n211,O([*])C(=O)OC(C=C1)=CC=C1CC(C)(C)C(C=C2)=CC=C2([*]),4.41,1.76,1.18,398\n212,CNCN,6.07,1.66,1.06,261\n213,C([*])C([*])(c1ccccc1C(=O)OCCCCCC),4.68,1.73,1.06,310\n214,CCON,6.31,1.66,1.15,210\n215,CCCC(=O),5.43,1.69,1.13,272\n216,C([*])C([*])C(=O)(N(CCCC)CCCC),5.49,1.66,0.98,322\n217,C([*])C([*])(C(=O)OC(C)(C)C),6.24,1.64,1.08,306\n218,C([*])C([*])(c1ccc(CCCCCCCCCCCCCCCC)cc1),6.11,1.67,0.91,261\n219,C([*])C([*])(CCCC(C)(C)C),7.28,1.62,0.87,306\n220,C(F)(F)C(F)(F)C(C=C1)=CC=C1O,4.77,1.75,1.52,358\n221,CC(S1)=CC=C1C(=O)C(S2)=CC=C2,2.86,1.96,1.44,425\n222,N([*])C(=O)CCCCCCCCC(=O)NCCCCCC([*]),6.49,1.66,1.02,325\n223,C(C=C1)=CC=C1C(=S)C(S2)=CC=C2C(=S),1.32,2.33,1.56,429\n224,C([*])C([*])(c1ccccc1COCC),4.54,1.73,1.03,328\n225,C([*])C([*])(c1ccc(COCCCC)cc1),4.75,1.71,1.0,299\n226,NC1=CC=C(S1)C2=CC=C(S2)C,2.75,2.07,1.42,422\n227,C(=O)C(=S)C(=O)O,1.13,2.16,1.69,341\n228,C([*])C([*])(C1CCCC1),7.73,1.62,0.91,358\n229,C([*])C([*])(C(=O)OCC(C)CCC),5.86,1.66,1.04,231\n230,C(C=C1)=CC=C1C(=S)C(C=C2)=CC=C2O,2.54,2.0,1.28,401\n231,C([*])C([*])(c1ccc(F)cc1F),5.13,1.76,1.07,378\n232,C([*])C([*])(CC),7.22,1.65,0.87,263\n233,C([*])C([*])(c1ccc(C(=O)N(C)C)cc1),4.05,1.77,1.11,430\n234,C([*])C([*])(C(=O)Oc1ccc(C(=O)OCCCC)cc1),4.57,1.75,1.19,297\n235,C([*])C([*])(C1=C(OCC)C=CC(Br)C1),4.3,1.73,1.13,333\n236,C(F)(F)C(F)(F)NC(=O),5.55,1.61,1.78,309\n237,NC(=O)NC(C=C1)=C(C)C=C1NC(=O)NCCCCCC,4.98,1.75,1.22,407\n238,O([*])C(=O)OC(C=C1)=CC=C1SC(C=C2)=CC=C2([*]),3.63,1.91,1.36,393\n239,C(F)C(F)(F),7.29,1.58,1.96,279\n240,CC(C=C1)=CC=C1CO,4.43,1.77,1.11,298\n241,N([*])C(CN1)NCC1NC(=O)CCCCCCCCC([*])(=O),6.05,1.65,1.09,365\n242,NC1=CC=C(S1)C2=CC=C(S2)C(=O),2.11,2.32,1.57,454\n243,CCCC,7.81,1.65,0.87,232\n244,C(=O)C1=CC=C(S1)C(C=C2)=CC=C2O,2.58,2.05,1.37,428\n245,C([*])C([*])(C(=O)OCCOCCC#N),6.42,1.66,1.26,257\n246,CCCC(C=C1)=CC=C1,4.27,1.75,1.0,310\n247,CC(C=C1)=CC=C1NC(=S),2.98,1.95,1.38,409\n248,C([*])=CCCCC([*]),5.99,1.65,0.91,219\n249,C(=O)C1=CC=C(S1)C(=S)C2=CC=C(S2),1.57,2.32,1.65,420\n250,CC(=O)NC1=CC=C(S1),3.65,1.88,1.5,407\n251,N([*])CCCCCCCCCNC(=O)CCCCCCCC([*])(=O),6.54,1.66,1.01,320\n252,CC(S1)=CC=C1OC(S2)=CC=C2,3.97,1.83,1.39,415\n253,C([*])C([*])(C)(C(=O)OCC(CC)CC),5.77,1.66,1.02,301\n254,C(F)(F)C(F)(F)CO,8.52,1.6,1.8,248\n255,O([*])C(=O)CCCCCCCC([*])(=O),6.75,1.67,1.15,266\n256,N(C(=O)C1=C2)C(=O)C1=CC=C2C(=O)C(=CC=C3C4(=O))C=C3C(=O)N4C(C)COCCOCCOC(C)COCC(C),3.46,1.8,1.24,349\n257,CC(C=C1)=CC=C1C(=S)C(C=C2)=CC=C2,2.84,1.97,1.2,402\n258,NC(C=C1)=CC=C1C(C=C2)=CC=C2C,3.3,1.91,1.15,452\n259,CNCC(=O),4.1,1.7,1.23,277\n260,C(S1)=CC=C1C(=S)OC(=S),1.9,2.29,1.72,386\n261,CC(=O)OC(=S),3.73,1.81,1.71,360\n262,C([*])C([*])(CCCCCC)(CCCCCCCCCC),7.62,1.64,0.87,278\n263,CC(C)CC(C),7.44,1.65,0.87,284\n264,C([*])C([*])(c1ccc(C(C)(O)CCC)cc1),4.87,1.71,1.01,398\n265,NC(=S)NC(C=C1)=CC=C1,2.67,2.11,1.54,482\n266,C([*])C([*])(C)(C(=O)OCCNC(C)(C)C),5.64,1.64,1.04,306\n267,CC(=O)C(C=C1)=CC=C1C(C=C2)=CC=C2,3.03,1.91,1.17,424\n268,C(=O)C(C=C1)=CC=C1C(=S)C(C=C2)=CC=C2,2.14,2.08,1.32,395\n269,C([*])C([*])(C)(C(=O)NCC1=CC=CC=C1),4.54,1.74,1.11,414\n270,C([*])C([*])(C(=O)NCCCC),5.59,1.66,1.04,346\n271,C([*])C([*])(c1ccccc1CC),4.47,1.74,0.99,341\n272,CC(S1)=CC=C1NC(S2)=CC=C2,3.3,1.96,1.5,434\n273,C([*])C([*])(C(=O)Oc2ccc1ccccc1c2),3.6,1.92,1.26,375\n274,COC(=O)NCCNC,6.24,1.66,1.21,322\n275,NC(C=C1)=CC=C1C(C=C2)=CC=C2C3=CC=C(S3),2.29,2.22,1.28,461\n276,C([*])C([*])(c1ccc(C(=O)CCCCC)cc1),4.22,1.74,1.03,331\n277,C(C=C1)=CC=C1C(=S)OC(=S),2.08,2.16,1.61,427\n278,C([*])C([*])(C1CCCCC1),7.77,1.62,0.9,361\n279,C([*])C([*])(c1ccc(OCCCC)cc1),4.77,1.72,1.01,318\n280,C([*])C([*])(C)(C(=O)OCCOC),5.44,1.67,1.14,295\n281,CC(C=C1)=CC=C1C(C=C2)=CC=C2C(C=C3)=CC=C3,3.13,1.94,1.1,440\n282,C(=O)OC(=S)O,3.85,1.8,1.7,338\n283,C([*])C(C)OC(C=C1)=CC=C1O([*]),4.77,1.76,1.14,337\n284,C([*])C([*])(N1CCCC1(=O)),5.96,1.64,1.12,421\n285,C([*])C(C)(C(=O)OCC(F)(F)C([*])(F)F),7.0,1.65,1.52,336\n286,N([*])C(=O)C(C=C1)=CC=C1C(=O)NCCCCCC([*]),4.79,1.77,1.14,407\n287,C(F)(F)C(F)(F)C(C=C1)=CC=C1C(S2)=CC=C2,3.17,1.89,1.45,385\n288,O([*])C(=O)OC(C=C1)=CC=C1C(CCC)C(C=C2)=CC=C2([*]),4.35,1.76,1.18,405\n289,C([*])C([*])(OC),6.67,1.66,1.03,232\n290,C([*])C([*])(C(=O)NC(C)(C)C),5.86,1.64,1.04,405\n291,C([*])C([*])(C(=O)NC(C)C),5.64,1.66,1.07,397\n292,C(S1)=CC=C1C(=S)C(S2)=CC=C2C(=S)C(=O)NC(C=C3)=CC=C3C(S4)=CC=C4,1.4,2.46,1.57,473\n293,C([*])C(C)OCO([*]),7.15,1.66,1.1,204\n294,CC(C=C1)=CC=C1OC(=S),3.52,1.84,1.33,386\n295,C([*])C([*])(C)(C(=O)OC1CCC(CC1)C(C)(C)C),6.44,1.63,1.0,380\n296,C(=O)C1=CC=C(S1)C2=CC=C(S2)C(=S),1.12,2.55,1.65,428\n297,CNCC(C=C1)=CC=C1,4.47,1.76,1.06,365\n298,N(C1(=O))C(=O)C(=C2)C1=CC(C3(=O))=C2C(=O)N3CCCN(C4(=O))C(=O)C(=C5)C4=CC(C6(=O))=C5C(=O)N6C(C)COC(C),3.33,1.93,1.38,337\n299,NC1=CC=C(S1)C2=CC=C(S2)C3=CC=C(S3),1.7,2.53,1.56,427\n300,CC(S1)=CC=C1NC(=S),2.72,2.0,1.63,419\n301,NC(=O)OC(=C1)SC(=C1),3.27,1.93,1.63,394\n302,C([*])C([*])(C1=CC(C)=CC=C1),4.82,1.75,1.0,381\n303,C([*])C([*])(C(=O)OC(C=C1)=CC=C1[Cl]),4.01,1.8,1.33,345\n304,O([*])C(=O)OC(C=C1)=CC=C1C2(CCCCC2)C(C=C3)=CC=C3([*]),4.72,1.73,1.16,433\n305,CC(C)CC(C)CC(C)CC(C),7.42,1.65,0.87,283\n306,C([*])C([*])(c1cc(Cl)ccc1Cl),2.74,1.91,1.38,409\n307,C([*])C([*])(C1=CC=C(OC)C=C1),4.38,1.76,1.08,372\n308,C([*])C([*])(C(=O)OCC1=CC=CC=C1),4.69,1.75,1.17,286\n309,C([*])C([*])(CCCCC),7.13,1.65,0.87,235\n310,C([*])(=O)OC(C=C1)=CC=C1C(CC)(C)C(C=C2)=CC=C2O([*]),4.44,1.76,1.18,422\n311,C(F)(F)C(F)(F)C(=O)C(=S),1.24,1.86,1.84,347\n312,N([*])CCCCCCCCCCNC(=O)CCCCCCCC([*])(=O),6.58,1.66,1.0,320\n313,C([*])C([*])(C1=C(OC)C=CC=C1),4.41,1.76,1.08,365\n314,C(F)(F)C(F)(F)ON,7.44,1.59,1.79,259\n315,CC(=S)C(=O)O,2.12,2.03,1.71,365\n316,C([*])C([*])(C#N)(C(=O)OC),5.93,1.67,1.42,430\n317,C([*])C(O)COC(C=C1)=CC=C1CC(C=C2)=CC=C2O([*]),4.54,1.77,1.16,374\n318,C(F)(F)C(=O)C(F)(F)C(C=C1)=CC=C1,3.57,1.76,1.41,334\n319,NC(C=C1)=CC=C1C(C=C2)=CC=C2C(=S),2.23,2.17,1.31,464\n320,C([*])(C(=O)OCCCCCC)(CC(=O)OCCCCCC)C([*]),5.77,1.66,1.05,264\n321,C([*])C([*])(C(=O)Oc1ccc(OC)cc1),4.7,1.75,1.22,324\n322,NC1=CC=C(S1)C2=CC=C(S2)C(=S),1.62,2.48,1.66,432\n323,CC(C=C1)=CC=C1C(=O)C(=S),2.42,1.97,1.39,366\n324,C([*])C([*])(c1ccc(C(=O)CCC)cc1),4.05,1.76,1.07,350\n325,O([*])C(=O)OC(C([Cl])=C1)=C([Cl])C=C1C2(CCCCC2)C(C=C3([Cl]))=CC([Cl])=C3([*]),3.86,1.75,1.41,458\n326,C([*])C([*])(SC1=CC=CC=C1),3.79,1.89,1.15,376\n327,O([*])CCCCCCOC(=O)CCCCCCCCC([*])(=O),6.72,1.66,1.06,222\n328,C([*])(C)O([*]),7.94,1.66,1.1,250\n329,C([*])C([*])(F)(C(=O)OC),5.31,1.68,1.4,388\n330,C([*])C([*])(c1ccccc1C(=O)OCC(C)C),4.65,1.75,1.09,356\n331,NC(=O)C1=CC=C(S1)O,3.15,1.95,1.53,383\n332,C([*])C([*])(OC(=O)CCCC),6.33,1.66,1.08,254\n333,OC(=O)NC(C=C1)=C(C)C=C1NC(=O)OCC,4.38,1.83,1.39,381\n334,CC(=O)NCC(=O)N,5.26,1.71,1.36,382\n335,CC(S1)=CC=C1CC(=S),3.03,1.84,1.47,359\n336,C([*])C([*])(C)(C(=O)OCC(C)C),5.74,1.66,1.06,322\n337,CC(=O)CO,4.94,1.71,1.32,264\n338,C(C=C1)=CC=C1OC(C=C2)=CC=C2C(=O)C(C=C3)=CC=C3O,3.12,1.89,1.25,430\n339,C(=O)C(C=C1)=CC=C1C(=O)C(C=C2)=CC=C2,2.83,1.98,1.28,368\n340,NC(=S)C(=O)O,2.08,2.11,1.73,357\n341,C([*])C([*])(C)(C(=O)NC(=O)C),5.09,1.7,1.23,446\n342,C([*])CCCCCCC(=O)OCCOC([*])(=O),6.75,1.67,1.13,229\n343,C([*])(O)C([*]),7.72,1.66,1.14,344\n344,C([*])(=O)OC(C(C)=C1)=C(C)C=C1C(C)(C)C(C=C2(C))=CC(C)=C2O([*]),5.02,1.74,1.12,451\n345,CC(S1)=CC=C1C(S2)=CC=C2O,2.82,2.01,1.39,418\n346,C([*])C([*])(c1ccc(CCCCCCCCCCCC)cc1),5.79,1.69,0.92,237\n347,CNC(C=C1)=CC=C1C(=O),2.91,1.9,1.29,426\n348,C([*])C([*])(C)(C(=O)OCCCCCCCCCCCCCCCCCC),6.8,1.64,0.94,289\n349,C(S1)=CC=C1OC(S2)=CC=C2O,3.95,1.85,1.49,384\n350,C(F)(F)C(F)(F)NC(C=C1)=CC=C1,4.27,1.78,1.51,374\n351,C(=O)OC(C=C1)=CC=C1C(=S),2.25,2.03,1.5,409\n352,CC(=O)C1=CC=C(S1)C2=CC=C(S2),2.36,2.07,1.44,419\n353,C([*])C([*])(C)(C(=O)OC1CCCC1),6.23,1.64,1.07,357\n354,C(S1)=CC=C1C(S2)=CC=C2C(S3)=CC=C3C(=S),1.02,2.69,1.58,415\n355,CC(C=C1)=CC=C1NC2=CC=C(S2),3.45,1.93,1.32,450\n356,NC(=O)NC(=S),2.26,2.06,1.75,355\n357,CNC(=O)C1=CC=C(S1),3.66,1.88,1.4,386\n358,C([*])C([*])(c1ccc(C(C)(O)CC)cc1),4.79,1.72,1.03,418\n359,C([*])C([*])(C(=O)OCc1ccc(C#N)cc1),4.86,1.74,1.3,335\n360,CNC(=S)N,3.73,1.88,1.51,405\n361,C([*])(C(=O)CC)C([*]),4.9,1.68,1.08,291\n362,C([*])C([*])(OC(=O)C1=CC=CC=C1),4.43,1.81,1.22,348\n363,C([*])C([*])(C)(C(=O)OC(C)CC),5.72,1.66,1.06,328\n364,CCCC1=CC=C(S1),3.95,1.77,1.13,299\n365,C([*])=CCC(C)C([*]),6.0,1.65,0.91,281\n366,N([*])CCCCCC([*])(=O),6.34,1.66,1.07,330\n367,C([*])C([*])(OCCCC),6.85,1.65,0.96,217\n368,C(=S)C(=O)CCNC(C=C1)=CC=C1C(=S)C(C=C2)=CC=C2,1.93,2.08,1.39,423\n369,C(F)(F)OC(F)(F)O,9.88,1.56,1.61,310\n370,C(F)(F)C(F)(F)C(C=C1)=CC=C1C(=S),2.46,1.91,1.57,349\n371,C([*])(CC(C)C)C([*]),7.15,1.65,0.87,290\n372,C(F)(F)C(F)(F)C(S1)=CC=C1C(S2)=CC=C2,2.76,1.96,1.59,375\n373,C(F)(F)NC(F)(F)C(=O),4.85,1.63,1.57,290\n374,C([*])C([*])(c1ccc(C(C)CC)cc1),4.74,1.72,0.96,349\n375,CNC(=O)NCOCO,6.68,1.67,1.32,326\n376,NC(=O)NC(C=C1)=C(C)C=C1NC(=O)NCC,4.4,1.81,1.33,444\n377,CC(=S)C(C=C1)=CC=C1N,2.26,2.03,1.38,437\n378,CC(=O)C1=CC=C(S1)C(=S),2.17,2.11,1.63,423\n379,CC(=S)CO,2.41,1.86,1.49,313\n380,CCC(C=C1)=CC=C1C(=S),2.68,1.92,1.22,361\n381,C([*])C([*])(C(=O)OC(C)CCCCCC),6.59,1.66,1.01,221\n382,C([*])C([*])(c1cc(C)ccc1C),5.09,1.74,0.99,396\n383,C([*])C([*])(CC1CCCC1),7.59,1.62,0.9,341\n384,N([*])CC(C=C1)=CC=C1CNC(=O)CCCCCCCCC([*])(=O),5.51,1.7,1.08,370\n385,C(C=C1)=CC=C1C(=S)C(C=C2)=CC=C2C(=S),1.59,2.19,1.39,399\n386,C(C=C1)=CC=C1C(S2)=CC=C2C(S3)=CC=C3C(S4)=CC=C4,1.32,2.64,1.33,436\n387,C([*])C([*])(c1ccc(C(=O)OCC)cc1),4.25,1.77,1.14,366\n388,C([*])C([*])(C(=O)NC1=CC=CC=C1),4.15,1.83,1.23,431\n389,O([*])CCOC(=O)CCCCCCCCC([*])(=O),6.77,1.67,1.11,232\n390,C([*])C([*])(C1=C(OCCC(C)C)C=CC(Br)C1),4.79,1.68,1.06,325\n391,NC(=S)NC(C=C1)=CC=C1CC(C=C2)=CC=C2,3.32,1.93,1.31,452\n392,N([*])C(C=C1)=CC=C1NC(=O)C(C=C2)=CC=C2C([*])(=O),3.01,1.99,1.37,561\n393,C([*])=CCCCCCCCCCCCCCCCC([*]),6.68,1.64,0.89,284\n394,C([*])C([*])(c1ccc(COCCCCC)cc1),4.81,1.71,0.99,288\n395,N([*])CCCCCCCCCNC(=O)CCCCCCCCC([*])(=O),6.58,1.66,1.0,320\n396,OC(=O)NC(C=C1)=C(C)C=C1NC(=O)OCC(C),4.56,1.81,1.35,380\n397,N([*])C(=O)CCCCCCC([*]),6.5,1.66,1.02,325\n398,C(C=C1)=CC=C1OC(=S)C(S2)=CC=C2,1.97,2.19,1.44,415\n399,N(C1(=O))C(=O)C(=C2)C1=CC(C3(=O))=C2C(=O)N3C(C)COCC(C),3.56,1.84,1.32,337\n400,C(=O)C(C=C1)=CC=C1OC(C=C2)=CC=C2,2.94,1.91,1.26,435\n401,O([*])C(=O)C(C=C1)=CC=C1CCCCCC(C=C2)=CC=C2C([*])(=O),4.2,1.79,1.17,334\n402,N(C(=O)C1=C2)C(=O)C1=CC=C2C(=O)C(=CC=C3C4(=O))C=C3C(=O)N4C(C)COC(C),2.76,1.9,1.34,382\n403,CC(=O)C(C=C1)=CC=C1C(=O),3.41,1.89,1.32,328\n404,C(=O)C(C=C1)=CC=C1C2=CC=C(S2)C3=CC=C(S3),1.75,2.39,1.36,456\n405,CC(=O)CC1=CC=C(S1),3.54,1.79,1.33,323\n406,CCOC(=O)OCCO,6.62,1.67,1.31,260\n407,C([*])C([*])(C(=O)OC(CC)CC),6.03,1.66,1.06,254\n408,CC(=O)C(=S)O,2.18,1.99,1.71,367\n409,CC(C)CC(C)CC(C),7.43,1.65,0.87,283\n410,C([*])(C(=O)OCC)C([*])(C(=O)OCC),5.66,1.69,1.22,288\n411,C([*])C([*])(C(=O)N(C(C)C)C(C)C),5.62,1.66,1.01,388\n412,C([*])C([*])(C(=O)OCCCOC),5.68,1.67,1.14,212\n413,C([*])C([*])(C(=O)OCCCCCCSCC#N),5.81,1.7,1.19,220\n414,C([*])(=O)OC(C=C1)=CC=C1CC(C=C2)=CC=C2O([*]),4.34,1.79,1.27,402\n415,NC(C=C1)=CC=C1C2=CC=C(S2)C(=S),1.84,2.35,1.48,459\n416,CNC(=S)C(C=C1)=CC=C1,3.09,1.95,1.28,385\n417,C([*])C([*])(C(=O)OCCOCC(F)(F)F),6.04,1.65,1.37,232\n418,C([*])CC(C)CCC([*]),7.7,1.65,0.87,243\n419,N(C(=O)C1=C2)C(=O)C1=CC=C2OC(=CC=C3C4(=O))C=C3C(=O)N4C(C)COCCOCCOC(C)COC(C),4.35,1.77,1.24,339\n420,[*]CC([*])(C(=O)N),5.81,1.69,1.23,439\n421,N(C(=O)C1=C2)C(=O)C1=CC=C2C(C(F)(F)(F))(C(F)(F)(F))C(=CC=C3C4(=O))C=C3C(=O)N4C(C)COC(C),3.88,1.8,1.43,365\n422,C([*])(C[Cl])(C[Cl])CCO([*]),4.96,1.77,1.34,278\n423,NC(C=C1)=CC=C1C(=O)O,3.33,1.94,1.41,390\n424,CC(=S)C(C=C1)=CC=C1O,2.52,1.96,1.33,383\n425,N([*])CCCCCCCCNC(=O)CCCCCCC([*])(=O),6.49,1.66,1.02,323\n426,C(=O)C(C=C1)=CC=C1C(=O)O,3.32,1.9,1.44,387\n427,O([*])C(C(C)=C1)=C(C)C=C1([*]),4.88,1.78,1.11,460\n428,CCCCCS,5.63,1.72,1.02,202\n429,C([*])C([*])(Cl)(C(=O)OCCCC),5.26,1.68,1.21,325\n430,O([*])C(=O)OC(C=C1)=CC=C1C(C2=CC=CC=C2)(C)C(C=C3)=CC=C3([*]),4.17,1.8,1.21,436\n431,CC(=O)C(=S)C1=CC=C(S1),2.04,2.1,1.63,407\n432,C([*])C([*])(C(=O)OCCCSC),4.31,1.75,1.18,211\n433,CC(=O)OC(C=C1)=CC=C1,4.46,1.78,1.27,322\n434,C(C=C1)=CC=C1C(S2)=CC=C2C(=S)C(S3)=CC=C3,1.32,2.57,1.43,447\n435,C([*])C(C1=CC=CC=C1)O([*]),4.53,1.77,1.11,325\n436,CCCN,6.25,1.65,0.96,243\n437,NOC(C=C1)=CC=C1O,4.62,1.82,1.32,367\n438,O([*])CCCCOC(=O)NC(C=C1)=CC=C1CC(C=C2)=CC=C2NC([*])(=O),4.27,1.8,1.27,375\n439,CC(S1)=CC=C1CC(S2)=CC=C2,3.85,1.82,1.29,388\n440,O([*])C(=O)OC(C=C1)=C(C)C=C1C(C)(C)C(C=C2)=CC(C)=C2([*]),4.69,1.75,1.16,432\n441,C([*])C([*])(OC(=O)C),6.76,1.68,1.22,306\n442,C([*])(F)(F)C([*])(F)(F),7.89,1.54,2.09,208\n443,C([*])C([*])(c1ccc(C#N)cc1),4.49,1.76,1.21,401\n444,CC(C=C1)=CC=C1C(=O)C(S2)=CC=C2,3.16,1.92,1.28,426\n445,N([*])CCCCCCCNC(=O)CCCCCC([*])(=O),6.43,1.66,1.04,327\n446,NC(=S)C(=C1)SC(=C1)C(=S),1.49,2.42,1.72,393\n447,C([*])C([*])(C(=O)NN1CCCCC1),5.74,1.63,1.08,384\n448,C([*])C([*])(C#N)(C(=O)OCC),6.0,1.66,1.33,417\n449,N(C1(=O))C(=O)C(=C2)C1=CC(C3(=O))=C2C(=O)N3CCCN(C4(=O))C(=O)C(=C5)C4=CC(C6(=O))=C5C(=O)N6C(C)COCCOCCOC(C)COCC(C),3.83,1.78,1.29,328\n450,N(C(=O)C1=C2)C(=O)C1=CC=C2C(=O)C(=CC=C3C4(=O))C=C3C(=O)N4CCCCCC,3.05,1.89,1.3,425\n451,C(=O)NC(=O)NC(=O)NC(S1)=CC=C1N,3.25,1.97,1.64,352\n452,CC(C=C1)=CC=C1C,4.07,1.77,1.03,343\n453,C([*])C([*])(CC(C)(C)C),7.39,1.62,0.87,330\n454,C([*])C([*])(CCCC(C)C),7.15,1.65,0.87,255\n455,C([*])C([*])(C(=O)OCC(CC)CC),5.92,1.66,1.04,243\n456,C([*])C([*])(C(=O)Oc1cccc(C(=O)OCC)c1),4.4,1.77,1.25,315\n457,C(F)(F)C(F)(F)CN,7.21,1.61,1.7,253\n458,C([*])(C(=O)OC)C([*])(C(=O)OC),5.37,1.71,1.32,359\n459,C([*])C([*])(c1cccc(CC)c1),4.48,1.74,0.99,340\n460,O([*])C(=O)OC(C=C1)=CC=C1C2(CCCC2)C(C=C3)=CC=C3([*]),4.58,1.74,1.19,434\n461,O([*])CCOC(=O)CCC([*])(=O),6.45,1.7,1.32,261\n462,CC(C1=CC=CC=C1)CC(C2=CC=CC=C2)CC(C3=CC=CC=C3)CC(C4=CC=CC=C4),4.41,1.77,1.03,394\n463,C(F)(F)C(=O)C(F)(F)O,5.26,1.6,1.62,300\n464,C([*])C([*])(Cl)(C(=O)OC1CCCCC1),5.83,1.64,1.17,377\n465,C(F)(F)C(C=C1)=CC=C1C(F)(F)C(C=C2)=CC=C2,3.95,1.79,1.26,382\n466,C(C=C1)=CC=C1C(C=C2)=CC=C2C(S3)=CC=C3C(=S),1.71,2.38,1.3,447\n467,C([*])C([*])(C)(C1=CC=CC=C1),4.41,1.75,1.0,394\n468,C([*])C([*])(C1=C(OCCCCC)C=CC(Br)C1),4.69,1.67,1.06,303\n469,C([*])C([*])(C(=O)OCC(F)(F)C(F)(F)C(F)(F)F),6.43,1.61,1.74,241\n470,CC(=O)CC(=S),3.08,1.83,1.58,327\n471,CNC(=S)C1=CC=C(S1),2.69,2.03,1.53,414\n472,C(C=C1)=CC=C1C(=O)NC(=O),3.09,1.95,1.38,481\n473,C([*])C([*])(C)(C(=O)OC1CCC1),6.18,1.65,1.1,364\n474,C([*])C([*])(C(=O)N1CCOCC1),5.73,1.63,1.15,400\n475,CCNC(=S),3.54,1.85,1.4,337\n476,NC(=O)C(=S)C(C=C1)=CC=C1,1.9,2.2,1.55,474\n477,CCC(=S)O,3.61,1.86,1.49,340\n478,NC(=O)NC(C=C1)=C(C)C=C1NC(=O)NCCC,4.57,1.79,1.3,438\n479,C([*])C([*])(C(=O)OCC1CO1),6.17,1.66,1.24,308\n480,C([*])C=CC([*])(C),5.74,1.65,0.92,287\n481,C([*])C([*])(OC=O),6.22,1.72,1.32,307\n482,C(S1)=CC=C1C(S2)=CC=C2OC(=S),1.81,2.33,1.62,434\n483,N([*])C(C)CC([*])(=O),6.01,1.68,1.15,404\n484,CCC(C=C1)=CC=C1C(C=C2)=CC=C2,3.43,1.84,1.06,410\n485,C([*])C([*])(CCC(C)C),7.19,1.65,0.87,266\n486,C([*])C([*])(C1=CC=C(F)C=C1),4.66,1.77,1.05,379\n487,C(C=C1)=CC=C1C(S2)=CC=C2C(S3)=CC=C3O,2.15,2.2,1.33,424\n488,NC(C=C1)=CC=C1NC2=CC=C(S2),2.89,2.11,1.5,473\n489,NC1=CC=C(S1)C(=S)C(C=C2)=CC=C2,2.05,2.24,1.54,461\n490,CC(=O)CC(C=C1)=CC=C1,3.79,1.78,1.16,314\n491,CC(C=C1)=CC=C1C(C=C2)=CC=C2C(=S),2.5,2.01,1.2,435\n492,CC(S1)=CC=C1OC(=S),3.36,1.85,1.59,418\n493,C([*])C([*])(C(=O)OC(C)C),5.95,1.67,1.11,276\n494,C([*])C([*])(C(=O)OCC(C)C),5.94,1.67,1.08,255\n495,C([*])C([*])(C(=O)NCCCCCCCCCCCCCCCCCC),6.81,1.64,0.93,193\n496,NC(=O)C1=CC=C(S1)C(C=C2)=CC=C2,2.37,2.18,1.39,519\n497,C(=O)C(C=C1)=CC=C1OC(=S),2.15,1.99,1.5,432\n498,C(=O)NOCCCCO,6.23,1.67,1.25,253\n499,C([*])C([*])(OC(C)C),6.93,1.65,0.97,266\n"
  },
  {
    "path": "tests/inverse/test_base_inverse.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport numpy as np\nimport pandas as pd\nimport pytest\n\nfrom xenonpy.inverse.base import BaseLogLikelihood, BaseProposal, BaseResample, BaseSMC\n\n\n@pytest.fixture(scope='module')\ndef data():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    class LLH(BaseLogLikelihood):\n\n        def log_likelihood(self, X, **target):\n            return pd.DataFrame(np.asanyarray(X))\n\n    class Proposal(BaseProposal):\n\n        def proposal(self, X):\n            return X\n\n    class Resample(BaseResample):\n\n        def resample(self, X, freq, size, p):\n            return np.random.choice(X, size, p=p)\n\n    class SMC(BaseSMC):\n\n        def __init__(self):\n            self._log_likelihood = LLH()\n            self._proposal = Proposal()\n            self._resample = Resample()\n\n    # prepare test data\n    yield dict(llh=LLH, prop=Proposal, smc=SMC, resample=Resample)\n\n    print('test over')\n\n\ndef test_base_loglikelihood_1(data):\n    llh = data['llh']()\n    X = np.array([1, 2, 3, 3, 4, 4])\n    ll = llh(X)\n    print(ll)\n    assert np.all(ll.values.flatten() == X)\n\n\ndef test_base_proposer_1(data):\n    proposer = data['prop']()\n    X = np.array([1, 2, 3, 4, 5])\n    x = proposer(X)\n    assert np.all(x == X)\n\n\ndef test_base_resammple_1(data):\n    res = data['resample']()\n    X = np.array([1, 2, 3, 4, 5])\n    x = res(X, np.repeat(1, len(X)), 4, p=[0, 0, 1, 0, 0])\n    print(x)\n    assert np.all(x == [3, 3, 3, 3])\n\n\ndef test_base_smc_1():\n    samples = [1, 2, 3, 4, 5]\n    beta = np.linspace(0.05, 1, 5)\n\n    class SMC(BaseSMC):\n        pass\n\n    smc = SMC()\n    with pytest.raises(NotImplementedError):\n        for s in smc(samples, beta=beta):\n            assert s\n\n\ndef test_base_smc_2(data):\n    class SMC(BaseSMC):\n        pass\n\n    smc = SMC()\n    llh = data['llh']()\n    proposer = data['prop']()\n    with pytest.raises(TypeError):\n        smc._log_likelihood = 1\n    smc._log_likelihood = llh\n\n    with pytest.raises(TypeError):\n        smc._proposal = 1\n    smc._proposal = proposer\n\n\ndef test_base_smc_3(data):\n    smc = data['smc']()\n\n    samples = [1, 2, 100, 4, 5]\n    beta = np.linspace(0.05, 1, 5)\n    for s, ll, p, f in smc(samples, beta=beta, yield_lpf=True):\n        pass\n    assert s == 100\n    assert np.all(ll == np.array(100))\n    assert p == 1.0\n    assert f == 5\n\n\ndef test_not_implement():\n    base = BaseLogLikelihood()\n    with pytest.raises(NotImplementedError):\n        base.log_likelihood([1, 2], a=1, b=1)\n\n    base = BaseResample()\n    with pytest.raises(NotImplementedError):\n        base.resample([1, 2], freq=[5, 5], size=10, p=[.5, .5])\n\n    base = BaseProposal()\n    with pytest.raises(NotImplementedError):\n        base.proposal([1, 2])\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/inverse/test_iqspr.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport types\nfrom copy import deepcopy\nfrom pathlib import Path\n\nimport numpy as np\nimport pandas as pd\nimport pytest\nfrom sklearn.linear_model import BayesianRidge\n\nfrom xenonpy.descriptor import ECFP, RDKitFP\nfrom xenonpy.inverse.base import BaseLogLikelihoodSet\nfrom xenonpy.inverse.iqspr import (IQSPR, IQSPR4DF, GaussianLogLikelihood, GetProbError, MolConvertError, NGram)\n\n\n@pytest.fixture(scope='module')\ndef data():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    pwd = Path(__file__).parent\n    pg_data = pd.read_csv(str(pwd / 'polymer_test_data.csv'))\n\n    X = pg_data['smiles']\n    y = pg_data.drop(['smiles', 'Unnamed: 0'], axis=1)\n    ecfp = ECFP(n_jobs=1, input_type='smiles', target_col=0)\n    rdkitfp = RDKitFP(n_jobs=1, input_type='smiles', target_col=0)\n    bre = GaussianLogLikelihood(descriptor=ecfp)\n    bre2 = GaussianLogLikelihood(descriptor=rdkitfp)\n    bre.fit(X, y[['bandgap', 'glass_transition_temperature']])\n    bre2.fit(X, y[['density', 'refractive_index']])\n    bre.update_targets(bandgap=(1, 2), glass_transition_temperature=(200, 300))\n    bre2.update_targets(refractive_index=(2, 3), density=(0.9, 1.2))\n\n    class MyLogLikelihood(BaseLogLikelihoodSet):\n\n        def __init__(self):\n            super().__init__()\n\n            self.loglike = bre\n            self.loglike = bre2\n\n    like_mdl = MyLogLikelihood()\n    ngram = NGram()\n    ngram.fit(X[0:20], train_order=5)\n    iqspr = IQSPR(estimator=bre, modifier=ngram)\n    # prepare test data\n    yield dict(ecfp=ecfp, rdkitfp=rdkitfp, bre=bre, bre2=bre2, like_mdl=like_mdl, ngram=ngram, iqspr=iqspr, pg=(X, y))\n\n    print('test over')\n\n\ndef test_gaussian_ll_1(data):\n    bre = deepcopy(data['bre'])\n    bre2 = data['bre2']\n    X, _ = data['pg']\n\n    assert 'bandgap' in bre._mdl\n    assert 'glass_transition_temperature' in bre._mdl\n    assert 'refractive_index' in bre2._mdl\n    assert 'density' in bre2._mdl\n\n    ll = bre.log_likelihood(X.sample(10), bandgap=(7, 8), glass_transition_temperature=(300, 400))\n    assert ll.shape == (10, 2)\n    assert isinstance(bre['bandgap'], BayesianRidge)\n    assert isinstance(bre['glass_transition_temperature'], BayesianRidge)\n\n    with pytest.raises(KeyError):\n        bre['other']\n\n    with pytest.raises(TypeError):\n        bre['other'] = 1\n    bre['other'] = BayesianRidge()\n\n    bre.remove_estimator()\n    assert bre._mdl == {}\n\n\ndef test_gaussian_ll_2(data):\n    bre = deepcopy(data['bre'])\n    X, y = data['pg']\n\n    x = X.sample(10)\n    tmp = bre.predict(x)\n    assert isinstance(tmp, pd.DataFrame)\n    assert tmp.shape == (10, 4)\n\n    x[66666] = 'CCd'\n    tmp = bre.predict(x)\n    assert isinstance(tmp, pd.DataFrame)\n    assert tmp.shape == (11, 4)\n    print(tmp)\n    tmp = tmp.loc[66666]\n\n    assert tmp.isna().all()\n\n\ndef test_gaussian_ll_3(data):\n    like_mdl = data['like_mdl']\n    X, y = data['pg']\n    ll = like_mdl.log_likelihood(X.sample(10))\n\n    assert ll.shape == (10, 4)\n\n\ndef test_gaussian_ll_4(data):\n    # check if training of NaN data and pd.Series input are ok\n    ecfp = data['ecfp']\n    bre = GaussianLogLikelihood(descriptor=ecfp)\n    train_data = pd.DataFrame({\n        'x': ['C', 'CC', 'CCC', 'CCCC', 'CCCCC'],\n        'a': [np.nan, np.nan, 3, 4, 5],\n        'b': [1, 2, 3, np.nan, np.nan]\n    })\n    bre.fit(train_data['x'], train_data['a'])\n\n    bre.remove_estimator()\n    bre.fit(train_data['x'], train_data[['a', 'b']])\n\n\n# @pytest.mark.skip(\n#     reason=\n#     \"Sklean.BassClass requires all params passed to __ini__ can be accessed by attribute/property on Python 3.8\"\n# )\ndef test_ngram_1(data):\n    ngram = NGram()\n    assert ngram.ngram_table is None\n    assert ngram.max_len == 1000\n    assert ngram.del_range == (1, 10)\n    assert ngram.reorder_prob == 0\n    assert ngram.sample_order == (1, 10)\n    assert ngram._train_order is None\n\n    ngram.set_params(max_len=500, reorder_prob=0.2)\n\n    assert ngram.max_len == 500\n    assert ngram.del_range == (1, 10)\n    assert ngram.reorder_prob == 0.2\n\n\ndef test_ngram_2(data):\n    ngram = NGram()\n\n    with pytest.warns(RuntimeWarning, match='<sample_order>'):\n        ngram.fit(data['pg'][0][:20], train_order=5)\n\n    assert ngram._train_order == (1, 5)\n    assert ngram.sample_order == (1, 5)\n    assert ngram.ngram_table is not None\n\n    np.random.seed(123456)\n    with pytest.warns(RuntimeWarning, match='can not convert'):\n        old_smis = ['CC(=S)C([*])(C)=CCC([*])']\n        tmp = ngram.proposal(old_smis)\n        assert tmp == old_smis\n\n    np.random.seed(654321)\n    with pytest.warns(RuntimeWarning, match='get_prob: '):\n        old_smis = ['C([*])C([*])(C1=C(OCCC)C=CC(Br)C1)']\n        tmp = ngram.proposal(old_smis)\n        assert tmp == old_smis\n\n\ndef test_ngram_3(data):\n    ngram = NGram(sample_order=5)\n    ngram.fit(data['pg'][0][:20], train_order=5)\n\n    def on_errors(self, error):\n        if isinstance(error, MolConvertError):\n            raise error\n        else:\n            return error.old_smi\n\n    np.random.seed(123456)\n    ngram.on_errors = types.MethodType(on_errors, ngram)\n    with pytest.raises(MolConvertError):\n        old_smis = ['CC(=S)C([*])(C)=CCC([*])']\n        ngram.proposal(old_smis)\n\n    def on_errors(self, error):\n        if isinstance(error, GetProbError):\n            raise error\n        else:\n            return error.old_smi\n\n    np.random.seed(654321)\n    ngram.on_errors = types.MethodType(on_errors, ngram)\n    with pytest.raises(GetProbError):\n        old_smis = ['C([*])C([*])(C1=C(OCCC)C=CC(Br)C1)']\n        ngram.proposal(old_smis)\n\n\ndef test_ngram_4():\n    smis1 = ['CCCc1ccccc1', 'CC(CCc1ccccc1)CC', 'Cc1ccccc1CC', 'C(CC(C))CC', 'CCCC']\n    n_gram1 = NGram()  # base case\n    n_gram1.fit(smis1, train_order=3)\n    assert n_gram1._train_order == (1, 3)\n\n    tmp_tab = n_gram1._table\n    assert (len(tmp_tab), len(tmp_tab[0][0])) == (3, 2)\n\n    check_close = [[(4, 5), (2, 2)], [(6, 5), (3, 2)], [(8, 4), (4, 2)]]\n    check_open = [[(5, 5), (2, 2)], [(6, 5), (3, 2)], [(6, 5), (4, 2)]]\n\n    for ii, x in enumerate(tmp_tab):\n        for i in range(len(x[0])):\n            assert x[0][i].shape == check_close[ii][i]\n            assert x[1][i].shape == check_open[ii][i]\n\n\ndef test_ngram_5():\n    smis1 = ['CCCc1ccccc1', 'CC(CCc1ccccc1)CC', 'Cc1ccccc1CC', 'C(CC(C))CC', 'CCCC']\n    smis2 = ['C(F)(F)C', 'CCCF', 'C(F)C=C']\n    smis3 = ['c123c(cc(ccc(N)ccc3)cccc2)cccc1', 'c1cncc1', 'CC(=O)CN']\n    n_gram1 = NGram()  # base case\n    n_gram1.fit(smis1, train_order=3)\n    n_gram2 = NGram()  # higher order but lower num of rings\n    n_gram2.fit(smis2, train_order=4)\n    n_gram3 = NGram()  # lower order but higher num of rings\n    n_gram3.fit(smis3, train_order=2)\n\n    tmp_ngram = n_gram1.merge_table(n_gram2, weight=1, overwrite=False)\n    assert tmp_ngram._train_order == (1, 4)\n    tmp_tab = tmp_ngram._table\n    assert (len(tmp_tab), len(tmp_tab[0][0])) == (4, 2)\n\n    tmp_ngram = n_gram1.merge_table(n_gram3, weight=1, overwrite=False)\n    assert tmp_ngram._train_order == (1, 3)\n    tmp_tab = tmp_ngram._table\n    assert (len(tmp_tab), len(tmp_tab[0][0])) == (3, 4)\n\n    n_gram1.merge_table(n_gram2, n_gram3, weight=[0.5, 1])\n    tmp_tab = n_gram1._table\n    assert n_gram1._train_order == (1, 4)\n    assert (len(tmp_tab), len(tmp_tab[0][0])) == (4, 4)\n    assert tmp_tab[0][0][0].loc[\"['C']\", \"C\"] == 11.0\n    assert tmp_tab[0][1][0].loc[\"['(']\", \"C\"] == 3.0\n\n\ndef test_ngram_6(data):\n    smis0 = ['CCCc1ccccc1', 'CC(CCc1ccccc1)CC', 'Cc1ccccc1CC', 'C(CC(C))CC', 'CCCC']\n    n_gram0 = NGram()  # base case\n    n_gram0.fit(smis0, train_order=5)\n\n    n_gram1, n_gram2 = n_gram0.split_table(cut_order=2)\n    assert n_gram1._train_order == (1, 2)\n    assert n_gram1.min_len == 1\n    assert n_gram2._train_order == (3, 5)\n    assert n_gram2.min_len == 3\n\n    n_gram3 = n_gram2.merge_table(n_gram1, weight=1, overwrite=False)\n    assert n_gram3._train_order == (1, 5)\n    assert n_gram3.min_len == 3\n    assert np.all(n_gram3._table[3][0][1] == n_gram0._table[3][0][1])\n    assert np.all(n_gram3._table[2][1][0] == n_gram0._table[2][1][0])\n    n_gram1.merge_table(n_gram2, weight=1)\n    assert n_gram1._train_order == (1, 5)\n    assert n_gram1.min_len == 1\n    assert np.all(n_gram1._table[3][0][1] == n_gram0._table[3][0][1])\n    assert np.all(n_gram1._table[2][1][0] == n_gram0._table[2][1][0])\n\n\ndef test_iqspr_1(data):\n    np.random.seed(0)\n    ecfp = data['ecfp']\n    bre = GaussianLogLikelihood(descriptor=ecfp)\n    ngram = NGram()\n    iqspr = IQSPR(estimator=bre, modifier=ngram)\n    X, y = data['pg']\n    bre.fit(X, y)\n    bre.update_targets(reset=True, bandgap=(0.1, 0.2), density=(0.9, 1.2))\n    ngram.fit(data['pg'][0][0:20], train_order=10)\n    beta = np.linspace(0.05, 1, 10)\n    for s, ll, p, f in iqspr(data['pg'][0][:5], beta, yield_lpf=True):\n        assert np.abs(np.sum(p) - 1.0) < 1e-5\n        assert np.sum(f) == 5\n\n\ndef test_iqspr_2(data):\n    np.random.seed(0)\n    like_mdl = data['like_mdl']\n    ngram = data['ngram']\n    iqspr = IQSPR(estimator=like_mdl, modifier=ngram)\n\n    beta1 = np.linspace(0.05, 1, 10)\n    beta2 = np.linspace(0.01, 1, 10)\n    beta = pd.DataFrame({\n        'bandgap': beta1,\n        'glass_transition_temperature': beta2,\n        'density': beta1,\n        'refractive_index': beta2\n    })\n    for s, ll, p, f in iqspr(data['pg'][0][:5], beta, yield_lpf=True):\n        assert np.abs(np.sum(p) - 1.0) < 1e-5\n        assert np.sum(f) == 5\n\n\ndef test_iqspr_resample1(data):\n    # not sure if this test can be fully reliable by only fixing the random seed\n    like_mdl = data['like_mdl']\n    ngram = data['ngram']\n    beta = np.linspace(0.1, 1, 2)\n\n    np.random.seed(0)\n    iqspr = IQSPR(estimator=like_mdl, modifier=ngram, r_ESS=0)\n    soln1 = [\n        [\n            'C([*])C([*])(C(=O)OCCSCCC#N)', 'C([*])C([*])(SCCC)',\n            'O([*])C(=O)OC(C=C1)=CC=C1C(C=C2)=CC=C2CC(C=C3)=CC=C3C(C=C4)=CC=C4([*])'\n        ],\n        [\n            'C([*])C([*])(C(=O)OCC(F)(F)C(F)(F)OC(F)(F)OC(F)(F)C(F)(F)OC(F)(F)C(F)(F)F)',\n            'C([*])C([*])(CC)(C(=O)OCC(F)(F)F)',\n            'O([*])C(=O)OC(C=C1)=CC=C1C(C=C1)=CC=C1CC(C=C1)=CC=C1C(C=C1)=CC=C1C(C=C1)=CC=C1C(C=C1)=CC=C1C(C=C1)=CC=C1C(=S)'\n        ]\n    ]\n    c0 = 0\n    for s, ll, p, f in iqspr(data['pg'][0][:3], beta, yield_lpf=True):\n        assert np.abs(np.sum(p) - 1.0) < 1e-5\n        assert np.sum(f) == 3\n        assert np.all(np.sort(s) == np.array(soln1[c0]))\n        c0 += 1\n\n    np.random.seed(0)\n    iqspr = IQSPR(estimator=like_mdl, modifier=ngram, r_ESS=1)\n    soln2 = [[\n        'C([*])C([*])(C(=O)OCCSCCC#N)', 'C([*])C([*])(SCCC)',\n        'O([*])C(=O)OC(C=C1)=CC=C1C(C=C2)=CC=C2CC(C=C3)=CC=C3C(C=C4)=CC=C4([*])'\n    ],\n             [\n                 'O([*])C(=O)OC(C=C1)=CC=C1C(C=C1)=CC=C1CC(C=C1)=CC=C1C(C=C1)=CC=C1([*])',\n                 'O([*])C(=O)OC(C=C1)=CC=C1C(C=C1)=CC=C1CC(C=C1)=CC=C1C(C=C1)=CC=C1C(=S)'\n             ]]\n    c0 = 0\n    for s, ll, p, f in iqspr(data['pg'][0][:3], beta, yield_lpf=True):\n        assert np.abs(np.sum(p) - 1.0) < 1e-5\n        assert np.sum(f) == 3\n        assert np.all(np.sort(s) == np.array(soln2[c0]))\n        c0 += 1\n\n\ndef test_iqspr4df_unique1(data):\n    # not sure if this test can be fully reliable by only fixing the random seed\n    like_mdl = data['like_mdl']\n    ngram = data['ngram']\n    beta = np.linspace(0.1, 1, 1)\n    samples = pd.DataFrame([data['pg'][0][:2].values.repeat(2), [0, 1, 2, 3]]).T\n\n    np.random.seed(0)\n    iqspr = IQSPR4DF(estimator=like_mdl, modifier=ngram, r_ESS=0, sample_col=0)\n    soln = pd.DataFrame([['C([*])C([*])(SCCC)', 'C([*])C([*])(C(=O)OCCSCCC#N)'], [0, 2]]).T\n    for s, ll, p, f in iqspr(samples, beta, yield_lpf=True):\n        assert np.abs(np.sum(p) - 1.0) < 1e-5\n        assert np.sum(f) == 4\n        assert (s == soln).all().all()\n\n\n@pytest.fixture\ndef test_df():\n    input = pd.DataFrame([[0, 1], [3, 3], [1, 3], [1, 2], [1, 3]], columns=['a', 'b'])\n    return input\n\n\ndef test_iqspr4df_two_col(data, test_df):\n    like_mdl = data['like_mdl']\n    ngram = data['ngram']\n    sample_col1 = ['a', 'b']\n    iqspr = IQSPR4DF(estimator=like_mdl, modifier=ngram, r_ESS=0, sample_col=sample_col1)\n\n    soln1 = pd.DataFrame([[0, 1], [3, 3], [1, 3], [1, 2]], columns=['a', 'b'])\n    freq1 = np.array([1, 1, 2, 1])\n\n    uni, f = iqspr.unique(test_df)\n    assert (uni == soln1).all().all()\n    assert np.all(f == freq1)\n\n\ndef test_iqspr4df_first_col(data, test_df):\n    like_mdl = data['like_mdl']\n    ngram = data['ngram']\n    sample_col2 = ['a']\n    iqspr = IQSPR4DF(estimator=like_mdl, modifier=ngram, r_ESS=0, sample_col=sample_col2)\n\n    soln2 = pd.DataFrame([[0, 1], [3, 3], [1, 3]], columns=['a', 'b'])\n    freq2 = np.array([1, 1, 3])\n\n    uni, f = iqspr.unique(test_df)\n    assert (uni == soln2).all().all()\n    assert np.all(f == freq2)\n\n\ndef test_iqspr4df_second_col(data, test_df):\n    like_mdl = data['like_mdl']\n    ngram = data['ngram']\n    sample_col3 = ['b']\n    iqspr = IQSPR4DF(estimator=like_mdl, modifier=ngram, r_ESS=0, sample_col=sample_col3)\n\n    soln3 = pd.DataFrame([[0, 1], [3, 3], [1, 2]], columns=['a', 'b'])\n    freq3 = np.array([1, 3, 1])\n\n    uni, f = iqspr.unique(test_df)\n    assert (uni == soln3).all().all()\n    assert np.all(f == freq3)\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/mdl/test_mdl.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom json import JSONDecodeError\nfrom pathlib import Path\nfrom shutil import rmtree\n\nimport pandas as pd\nimport pytest\nfrom requests import HTTPError\n\nfrom xenonpy.mdl import MDL\n\npytestmark = pytest.mark.skipif(True, reason=\"no way of currently testing this, skipping tests\")\n\n\n@pytest.fixture(scope='module')\ndef mdl():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    yield MDL()\n\n    print('test over')\n\n\ndef test_query_properties(mdl):\n    ret = mdl.query_properties('test')\n    assert isinstance(ret, list)\n\n\ndef test_query_models_1(mdl):\n    ret = mdl('test')\n    assert isinstance(ret, pd.DataFrame)\n    assert ret.shape[0] == 1\n    assert ret.index[0] == 'M00000'\n\n    ret = mdl('no exists model set')\n    assert ret is None\n\n\ndef test_pull_1(mdl):\n    ret = mdl('Stable inorganic compounds', property_has='volume')\n    urls = ret['url'].iloc[:1]\n    paths = mdl.pull(model_ids=urls)\n\n    assert Path(paths[0]).exists()\n    assert Path(paths[0]).is_dir()\n\n    rmtree('S1')\n\n\ndef test_return_nothing(mdl, monkeypatch):\n\n    class Request_Dummy(object):\n\n        def __init__(self, **_):\n            self.status_code = 999\n\n        def json(self):\n            raise JSONDecodeError(\"error\", \"error\", 0)\n\n    monkeypatch.setattr(\"requests.post\", Request_Dummy)\n    with pytest.raises(HTTPError) as excinfo:\n        mdl(\"test\")\n    exc_msg = excinfo.value.args[0]\n    assert exc_msg == \"status_code: 999, Server did not responce.\"\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/models/test_base_runner.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom collections import OrderedDict\n\nimport pytest\n\nfrom xenonpy.model.training.base import BaseRunner, BaseExtension\n\n\n@pytest.fixture(scope='module')\ndef data():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    class Ext1(BaseExtension):\n        def __init__(self):\n            super().__init__()\n            self.before = None\n            self.after = None\n\n        def before_proc(self) -> None:\n            self.before = 'ext1'\n\n        def after_proc(self) -> None:\n            self.after = 'ext1'\n\n        def step_forward(self, step_info: OrderedDict) -> None:\n            step_info['ext1'] = 'ext1'\n\n        def input_proc(self, x_in, y_in, **_):\n            if y_in is None:\n                return x_in * 10, y_in\n            return x_in * 10, y_in * 10\n\n        def output_proc(self, y_pred, y_true, **_):\n            return y_pred * 10, y_true\n\n    class Ext2(BaseExtension):\n        def __init__(self):\n            super().__init__()\n            self.before = None\n            self.after = None\n\n        def before_proc(self, ext1) -> None:\n            self.before = ext1.before + '_ext2'\n\n        def after_proc(self, ext1) -> None:\n            self.after = ext1.after + '_ext2'\n\n        def step_forward(self, step_info: OrderedDict, non_exist='you can not see me!') -> None:\n            step_info['ext2'] = step_info['ext1'] + '_ext2'\n            step_info['non_exist'] = non_exist\n\n        def input_proc(self, x_in, y_in=None, **_):\n            if y_in is None:\n                return x_in * 2, y_in\n            return x_in * 2, y_in * 2\n\n        def output_proc(self, y_pred, y_true=None, **_):\n            return y_pred * 2, y_true\n\n    yield Ext1, Ext2\n    print('test over')\n\n\ndef test_base_runner_1(data):\n    assert BaseRunner.check_device(False).type == 'cpu'\n    assert BaseRunner.check_device('cpu').type == 'cpu'\n\n    with pytest.raises(RuntimeError, match='could not use CUDA on this machine'):\n        BaseRunner.check_device(True)\n\n    with pytest.raises(RuntimeError, match='could not use CUDA on this machine'):\n        BaseRunner.check_device('cuda')\n\n    with pytest.raises(RuntimeError, match='wrong device identifier'):\n        BaseRunner.check_device('other illegal')\n\n\ndef test_base_runner_2(data):\n    x, y = 1, 2\n    runner = BaseRunner()\n    assert runner.input_proc(x, y, ) == (x, y)\n\n\ndef test_base_runner_3(data):\n    x, y = 1, 2\n    ext1, ext2 = data[0](), data[1]()\n    runner = BaseRunner()\n    runner.extend(ext1, ext2)\n    assert {'ext1', 'ext2'} == set(runner._extensions.keys())\n\n    runner._before_proc()\n    assert ext1.before == 'ext1'\n    assert ext2.before == 'ext1_ext2'\n\n    runner._after_proc()\n    assert ext1.after == 'ext1'\n    assert ext2.after == 'ext1_ext2'\n\n    step_info = OrderedDict()\n    runner._step_forward(step_info=step_info)\n    assert step_info['ext1'] == 'ext1'\n    assert step_info['ext2'] == 'ext1_ext2'\n    assert step_info['non_exist'] == 'you can not see me!'\n\n    assert runner.input_proc(x, y, ) == (x * 10 * 2, y * 10 * 2)\n    assert runner.input_proc(x, ) == (x * 10 * 2, None)\n    assert runner.output_proc(y, ) == (y * 10 * 2, None)\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/models/test_checker.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport os\nfrom collections import OrderedDict\nfrom pathlib import Path\nfrom shutil import rmtree\n\nimport numpy as np\nimport pandas as pd\nimport pytest\n\nfrom xenonpy.model import LinearLayer\nfrom xenonpy.model.training import Checker\n\n\n@pytest.fixture(scope='module')\ndef setup():\n    # prepare path\n    name = 'checker'\n    dir_ = os.path.dirname(os.path.abspath(__file__))\n    dot = Path()\n    test = dict(name=name,\n                dir_=dir_,\n                cp=dict(model_state=1, b=2),\n                path=f'{dir_}/test/{name}',\n                dot=str(dot),\n                model=LinearLayer(10, 1),\n                np=np.ones((2, 3)),\n                df=pd.DataFrame(np.ones((2, 3))))\n\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    yield test\n\n    rmtree(f'{dir_}/test')\n\n    print('test over')\n\n\ndef test_checker_path(setup):\n    checker = Checker()\n    assert checker.path == str(Path('.').resolve() / Path.cwd().name)\n    assert checker.model_name == Path(os.getcwd()).name\n\n    checker = Checker(setup['path'])\n    assert checker.path == str(Path(setup['path']))\n    assert checker.model_name == setup['name']\n\n    checker = Checker(setup['path'], increment=True)\n    assert checker.path == str(Path(setup['path'] + '@1'))\n    assert checker.model_name == setup['name'] + '@1'\n\n\ndef test_checker_model_1(setup):\n    checker = Checker(setup['path'])\n\n    assert checker.model is None\n    assert checker.describe is None\n    assert checker.model_structure is None\n    with pytest.raises(TypeError):\n        checker.model = None\n\n    checker.model = setup['model']\n    assert isinstance(checker.model, LinearLayer)\n    assert isinstance(checker.model_structure, str)\n    assert 'LinearLayer' in checker.model_structure\n    assert str(checker.model) == str(setup['model'])\n\n    assert checker.init_state is not None\n    with pytest.raises(TypeError):\n        checker.init_state = None\n    with pytest.raises(TypeError):\n        checker.init_state = OrderedDict(a=1)\n    assert isinstance(checker.init_state, OrderedDict)\n\n    assert checker.final_state is None\n    with pytest.raises(TypeError):\n        checker.final_state = None\n    with pytest.raises(TypeError):\n        checker.init_state = OrderedDict(a=1)\n\n    checker.final_state = setup['model'].state_dict()\n    assert isinstance(checker.final_state, OrderedDict)\n\n\ndef test_checker_call(setup):\n    checker = Checker(setup['path'])\n    assert checker['no exists'] is None\n    checker.set_checkpoint(**setup['cp'])\n    assert (Path(checker.path) / 'checkpoints').exists()\n\n\ndef test_checker_from_cp(setup):\n    checker = Checker(setup['path'])\n    path = checker.path\n    checker.set_checkpoint(test_cp=setup['cp'])\n    checker(a=1)\n    checker2 = Checker.load(path)\n    assert checker2['a'] == 1\n\n    cp = checker2.checkpoints['test_cp']\n    assert 'b' in cp\n    assert cp['model_state'] == setup['cp']['model_state']\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/models/test_extension.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom collections import OrderedDict\nfrom pathlib import Path\nfrom scipy.special import softmax\n\nimport numpy as np\nimport pandas as pd\nimport pytest\nfrom shutil import rmtree\n\nimport torch\nimport os\n\nfrom xenonpy.model import SequentialLinear\nfrom xenonpy.model.training import Trainer\nfrom xenonpy.model.training.base import BaseExtension, BaseRunner\nfrom xenonpy.model.training.extension import TensorConverter, Validator, Persist\nfrom xenonpy.model.utils import regression_metrics, classification_metrics\n\n\n@pytest.fixture(scope='module')\ndef data():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    dir_ = os.path.dirname(os.path.abspath(__file__))\n\n    yield\n\n    try:\n        rmtree(str(Path('.').resolve() / 'test_model'))\n    except:\n        pass\n    try:\n        rmtree(str(Path('.').resolve() / 'test_model@1'))\n    except:\n        pass\n    try:\n        rmtree(str(Path('.').resolve() / 'test_model_1'))\n    except:\n        pass\n    try:\n        rmtree(str(Path('.').resolve() / 'test_model_2'))\n    except:\n        pass\n    try:\n        rmtree(str(Path('.').resolve() / 'test_model_3'))\n    except:\n        pass\n    try:\n        rmtree(str(Path('.').resolve() / Path(os.getcwd()).name))\n    except:\n        pass\n\n    print('test over')\n\n\ndef test_base_runner_1():\n    ext = BaseExtension()\n    x, y = 1, 2\n    assert ext.input_proc(x, y) == (x, y)\n    assert ext.output_proc(y, None) == (y, None)\n\n    x, y = (1,), 2\n    assert ext.input_proc(x, y) == (x, y)\n    assert ext.output_proc(y, None) == (y, None)\n\n    x, y = (1,), (2,)\n    assert ext.input_proc(x, y) == (x, y)\n    assert ext.output_proc(y, y) == (y, y)\n\n\ndef test_tensor_converter_1():\n\n    class _Trainer(BaseRunner):\n\n        def __init__(self):\n            super().__init__()\n            self.non_blocking = False\n\n        def predict(self, x_, y_):  # noqa\n            return x_, y_\n\n    trainer = _Trainer()\n    arr_1 = [1, 2, 3]\n    np_1 = np.asarray(arr_1)\n    se_1 = pd.Series(arr_1)\n    pd_1 = pd.DataFrame(arr_1)\n    np_ = np.asarray([arr_1, arr_1])\n    pd_ = pd.DataFrame(np_)\n    tensor_ = torch.Tensor(np_)\n\n    # test auto reshape; #189\n    converter = TensorConverter(auto_reshape=False)\n    x, y = converter.input_proc(np_1, None, trainer=trainer)  # noqa\n    assert isinstance(x, torch.Tensor)\n    assert x.shape == (3,)\n\n    x, y = converter.input_proc(se_1, None, trainer=trainer)  # noqa\n    assert isinstance(x, torch.Tensor)\n    assert x.shape == (3,)\n\n    x, y = converter.input_proc(pd_1, None, trainer=trainer)  # noqa\n    assert isinstance(x, torch.Tensor)\n    assert x.shape == (3, 1)\n\n    converter = TensorConverter()\n    x, y = converter.input_proc(np_1, None, trainer=trainer)  # noqa\n    assert isinstance(x, torch.Tensor)\n    assert x.shape == (3, 1)\n\n    x, y = converter.input_proc(se_1, None, trainer=trainer)  # noqa\n    assert isinstance(x, torch.Tensor)\n    assert x.shape == (3, 1)\n\n    x, y = converter.input_proc(pd_1, None, trainer=trainer)  # noqa\n    assert isinstance(x, torch.Tensor)\n    assert x.shape == (3, 1)\n\n    # normal tests\n    x, y = converter.input_proc(np_, None, trainer=trainer)  # noqa\n    assert isinstance(x, torch.Tensor)\n    assert x.shape == (2, 3)\n    assert torch.equal(x, tensor_)\n    assert y is None\n\n    x, y = converter.input_proc(pd_, None, trainer=trainer)  # noqa\n    assert isinstance(x, torch.Tensor)\n    assert x.shape == (2, 3)\n    assert torch.equal(x, tensor_)\n    assert y is None\n\n    x, y = converter.input_proc(tensor_, None, trainer=trainer)  # noqa\n    assert isinstance(x, torch.Tensor)\n    assert x.shape == (2, 3)\n    assert torch.equal(x, tensor_)\n    assert y is None\n\n    x, y = converter.input_proc(np_, np_, trainer=trainer)  # noqa\n    assert isinstance(x, torch.Tensor)\n    assert x.shape == (2, 3)\n    assert torch.equal(x, tensor_)\n    assert torch.equal(y, tensor_)\n\n    x, y = converter.input_proc(pd_, pd_, trainer=trainer)  # noqa\n    assert isinstance(x, torch.Tensor)\n    assert x.shape == (2, 3)\n    assert torch.equal(x, tensor_)\n    assert torch.equal(y, tensor_)\n\n    x, y = converter.input_proc(tensor_, tensor_, trainer=trainer)  # noqa\n    assert isinstance(x, torch.Tensor)\n    assert x.shape == (2, 3)\n    assert torch.equal(x, tensor_)\n    assert torch.equal(y, tensor_)\n\n    converter = TensorConverter(x_dtype=torch.long)\n    x, y = converter.input_proc((np_, np_), np_, trainer=trainer)  # noqa\n    assert isinstance(x, tuple)\n    assert len(x) == 2\n    assert x[0].dtype == torch.long\n    assert x[1].dtype == torch.long\n\n    converter = TensorConverter(x_dtype=(torch.long, torch.float32), y_dtype=torch.long)\n    x, y = converter.input_proc((np_, np_), np_, trainer=trainer)  # noqa\n    assert isinstance(x, tuple)\n    assert len(x) == 2\n    assert x[0].dtype == torch.long\n    assert x[1].dtype == torch.float32\n    assert y.dtype == torch.long\n\n    converter = TensorConverter(x_dtype=(torch.long, torch.float32))\n    x, y = converter.input_proc((pd_, pd_), pd_, trainer=trainer)  # noqa\n    assert isinstance(x, tuple)\n    assert len(x) == 2\n    assert x[0].dtype == torch.long\n    assert x[1].dtype == torch.float32\n\n    # for tensor input, dtype change will never be executed\n    converter = TensorConverter(x_dtype=(torch.long, torch.long))\n    x, y = converter.input_proc((tensor_, tensor_), tensor_, trainer=trainer)  # noqa\n    assert isinstance(x, tuple)\n    assert len(x) == 2\n    assert x[0].dtype == torch.float32\n    assert x[1].dtype == torch.float32\n\n\ndef test_tensor_converter_2():\n\n    class _Trainer(BaseRunner):\n\n        def __init__(self):\n            super().__init__()\n            self.non_blocking = False\n\n        def predict(self, x_, y_):\n            return x_, y_\n\n    trainer = _Trainer()\n    converter = TensorConverter()\n    np_ = np.asarray([[1, 2, 3], [4, 5, 6]])\n    pd_ = pd.DataFrame(np_)\n    tensor_ = torch.Tensor(np_)  # noqa\n\n    x, y = converter.input_proc(np_, np_[0], trainer=trainer)  # noqa\n    assert isinstance(y, torch.Tensor)\n    assert y.shape == (3, 1)\n    assert torch.equal(y, tensor_[0].unsqueeze(-1))\n\n    x, y = converter.input_proc(pd_, pd_.iloc[0], trainer=trainer)  # noqa\n    assert isinstance(y, torch.Tensor)\n    assert y.shape == (3, 1)\n    assert torch.equal(y, tensor_[0].unsqueeze(-1))\n\n    x, y = converter.input_proc(tensor_, tensor_[0], trainer=trainer)  # noqa\n    assert isinstance(y, torch.Tensor)\n    assert y.shape == (3,)\n    assert torch.equal(y, tensor_[0])\n\n\ndef test_tensor_converter_3():\n    np_ = np.asarray([[1, 2, 3], [4, 5, 6]])\n    tensor_ = torch.from_numpy(np_)\n\n    converter = TensorConverter()\n    y, y_ = converter.output_proc(tensor_, None, is_training=True)\n    assert y_ is None\n    assert isinstance(y, torch.Tensor)\n    assert y.shape == (2, 3)\n    assert torch.equal(y, tensor_)\n\n    y, y_ = converter.output_proc(tensor_, tensor_, is_training=True)\n    assert isinstance(y, torch.Tensor)\n    assert isinstance(y_, torch.Tensor)\n    assert y.equal(y_)\n    assert y.shape == (2, 3)\n    assert torch.equal(y, tensor_)\n\n    y, _ = converter.output_proc((tensor_,), None, is_training=True)\n    assert isinstance(y, tuple)\n    assert isinstance(y[0], torch.Tensor)\n    assert torch.equal(y[0], tensor_)\n\n    y, y_ = converter.output_proc(tensor_, tensor_, is_training=False)\n    assert isinstance(y, np.ndarray)\n    assert isinstance(y_, np.ndarray)\n    assert np.all(y == y_)\n    assert y.shape == (2, 3)\n    assert np.all(y == tensor_.numpy())\n\n    y, _ = converter.output_proc((tensor_,), None, is_training=False)\n    assert isinstance(y, tuple)\n    assert isinstance(y[0], np.ndarray)\n    assert np.all(y[0] == tensor_.numpy())\n\n    converter = TensorConverter(argmax=True)\n    y, y_ = converter.output_proc(tensor_, tensor_, is_training=False)\n    assert isinstance(y, np.ndarray)\n    assert isinstance(y_, np.ndarray)\n    assert y.shape == (2,)\n    assert y_.shape == (2, 3)\n    assert np.all(y == np.argmax(np_, 1))\n\n    y, y_ = converter.output_proc((tensor_, tensor_), None, is_training=False)\n    assert isinstance(y, tuple)\n    assert y_ is None\n    assert y[0].shape == (2,)\n    assert y[0].shape == y[1].shape\n    assert np.all(y[0] == np.argmax(np_, 1))\n\n    converter = TensorConverter(probability=True)\n    y, y_ = converter.output_proc(tensor_, tensor_, is_training=False)\n    assert isinstance(y, np.ndarray)\n    assert isinstance(y_, np.ndarray)\n    assert y.shape == (2, 3)\n    assert y_.shape == (2, 3)\n    assert np.all(y == softmax(np_, 1))\n\n    y, y_ = converter.output_proc((tensor_, tensor_), None, is_training=False)\n    assert isinstance(y, tuple)\n    assert y_ is None\n    assert y[0].shape == (2, 3)\n    assert y[0].shape == y[1].shape\n    assert np.all(y[0] == softmax(np_, 1))\n\n\ndef test_validator_1():\n    x = np.random.randn(100)  # input\n    y = x + np.random.rand() * 0.001  # true values\n\n    class _Trainer(BaseRunner):\n\n        def __init__(self):\n            super().__init__()\n            self.x_val = x\n            self.y_val = y\n            self.loss_type = 'train_loss'\n\n        def predict(self, x_, y_):\n            return x_, y_\n\n    val = Validator('regress', each_iteration=False)\n\n    step_info = OrderedDict(train_loss=0, i_epoch=0)\n    val.step_forward(trainer=_Trainer(), step_info=step_info)  # noqa\n    assert 'val_mae' not in step_info\n\n    step_info = OrderedDict(train_loss=0, i_epoch=1)\n    val.step_forward(trainer=_Trainer(), step_info=step_info)  # noqa\n    assert step_info['val_mae'] == regression_metrics(y, x)['mae']\n    assert set(step_info.keys()) == {\n        'i_epoch', 'val_mae', 'val_mse', 'val_rmse', 'val_r2', 'val_pearsonr', 'val_spearmanr', 'val_p_value',\n        'val_max_ae', 'train_loss'\n    }\n\n\ndef test_validator_2():\n    y = np.random.randint(3, size=10)  # true labels\n    x = np.zeros((10, 3))  # input\n    for i, j in enumerate(y):\n        x[i, j] = 1\n\n    class _Trainer(BaseRunner):\n\n        def __init__(self):\n            super().__init__()\n            self.x_val = x\n            self.y_val = y\n            self.loss_type = 'train_loss'\n\n        def predict(self, x_, y_):  # noqa\n            return x_, y_\n\n    val = Validator('classify', each_iteration=False)\n\n    step_info = OrderedDict(train_loss=0, i_epoch=0)\n    val.step_forward(trainer=_Trainer(), step_info=step_info)  # noqa\n    assert 'val_f1' not in step_info\n\n    step_info = OrderedDict(train_loss=0, i_epoch=1)\n    val.step_forward(trainer=_Trainer(), step_info=step_info)  # noqa\n    assert step_info['val_accuracy'] == classification_metrics(y, x)['accuracy']\n    assert set(step_info.keys()) == {\n        'i_epoch', 'val_accuracy', 'val_f1', 'val_precision', 'val_recall', 'val_macro_f1', 'val_macro_precision',\n        'val_macro_recall', 'val_weighted_f1', 'val_weighted_precision', 'val_weighted_recall', 'val_micro_f1',\n        'val_micro_precision', 'val_micro_recall', 'train_loss'\n    }\n\n\ndef test_persist_1(data):\n\n    class _Trainer(BaseRunner):\n\n        def __init__(self):\n            super().__init__()\n            self.model = SequentialLinear(50, 2)\n\n        def predict(self, x_, y_):  # noqa\n            return x_, y_\n\n    p = Persist()\n\n    with pytest.raises(ValueError, match='can not access property `path` before training'):\n        p.path\n\n    p.before_proc(trainer=_Trainer())\n    assert p.path == str(Path('.').resolve() / Path(os.getcwd()).name)\n    with pytest.raises(ValueError, match='can not reset property `path` after training'):\n        p.path = 'aa'\n\n    p = Persist('test_model')\n    p.before_proc(trainer=_Trainer())\n    assert p.path == str(Path('.').resolve() / 'test_model')\n    assert (Path('.').resolve() / 'test_model' / 'describe.pkl.z').exists()\n    assert (Path('.').resolve() / 'test_model' / 'init_state.pth.s').exists()\n    assert (Path('.').resolve() / 'test_model' / 'model.pth.m').exists()\n    assert (Path('.').resolve() / 'test_model' / 'model_structure.pkl.z').exists()\n\n    p = Persist('test_model', increment=True)\n    p.before_proc(trainer=_Trainer())\n    assert p.path == str(Path('.').resolve() / 'test_model@1')\n    assert (Path('.').resolve() / 'test_model@1' / 'describe.pkl.z').exists()\n    assert (Path('.').resolve() / 'test_model@1' / 'init_state.pth.s').exists()\n    assert (Path('.').resolve() / 'test_model@1' / 'model.pth.m').exists()\n    assert (Path('.').resolve() / 'test_model@1' / 'model_structure.pkl.z').exists()\n\n\ndef test_persist_save_checkpoints(data):\n\n    class _Trainer(BaseRunner):\n\n        def __init__(self):\n            super().__init__()\n            self.model = SequentialLinear(50, 2)\n\n        def predict(self, x_, y_):  # noqa\n            return x_, y_\n\n    cp_1 = Trainer.checkpoint_tuple(\n        id='cp_1',\n        iterations=111,\n        model_state=SequentialLinear(50, 2).state_dict(),\n    )\n    cp_2 = Trainer.checkpoint_tuple(\n        id='cp_2',\n        iterations=111,\n        model_state=SequentialLinear(50, 2).state_dict(),\n    )\n\n    # save checkpoint\n    p = Persist('test_model_1', increment=False, only_best_states=False)\n    p.before_proc(trainer=_Trainer())\n    p.on_checkpoint(cp_1)\n    p.on_checkpoint(cp_2)\n    assert (Path('.').resolve() / 'test_model_1' / 'checkpoints' / 'cp_1.pth.s').exists()\n    assert (Path('.').resolve() / 'test_model_1' / 'checkpoints' / 'cp_2.pth.s').exists()\n\n    # reduced save checkpoint\n    p = Persist('test_model_2', increment=False, only_best_states=True)\n    p.before_proc(trainer=_Trainer())\n    p.on_checkpoint(cp_1)\n    p.on_checkpoint(cp_2)\n    assert (Path('.').resolve() / 'test_model_2' / 'checkpoints' / 'cp.pth.s').exists()\n    assert not (Path('.').resolve() / 'test_model_2' / 'checkpoints' / 'cp_1.pth.s').exists()\n    assert not (Path('.').resolve() / 'test_model_2' / 'checkpoints' / 'cp_2.pth.s').exists()\n\n    # no checkpoint will be saved\n    p = Persist('test_model_3', increment=False, only_best_states=True)\n    p.before_proc(trainer=_Trainer())\n    p.on_checkpoint(cp_2)\n    assert not (Path('.').resolve() / 'test_model_3' / 'checkpoints' / 'cp.pth.s').exists()\n    assert not (Path('.').resolve() / 'test_model_3' / 'checkpoints' / 'cp_2.pth.s').exists()\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/models/test_sequential.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport pytest\nimport torch\n\nfrom xenonpy.model import LinearLayer, SequentialLinear\n\n\n@pytest.fixture(scope='module')\ndef data():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    x = torch.randn(10, 10)\n\n    yield (x,)\n    print('test over')\n\n\ndef test_layer_1(data):\n    layer = LinearLayer(10, 1)\n    assert layer.linear.in_features == 10\n    assert layer.linear.out_features == 1\n    assert layer.linear.bias is not None\n    assert layer.dropout.p == 0\n    assert layer.activation.__class__.__name__ == 'ReLU'\n    assert layer.normalizer.__class__.__name__ == 'BatchNorm1d'\n\n    x = layer(data[0])\n    assert x.size() == (10, 1)\n\n\ndef test_layer_2(data):\n    layer = LinearLayer(10, 5, bias=False, dropout=0.5, normalizer=None, activation_func=torch.nn.Tanh())\n    assert layer.linear.in_features == 10\n    assert layer.linear.out_features == 5\n    assert layer.linear.bias is None\n    assert layer.dropout.p == 0.5\n    assert layer.activation.__class__.__name__ == 'Tanh'\n    assert layer.normalizer is None\n\n    x = layer(data[0])\n    assert x.size() == (10, 5)\n\n\ndef test_sequential_1(data):\n    m = SequentialLinear(10, 5)\n    assert isinstance(m, torch.nn.Module)\n    assert m.output.in_features == 10\n    assert m.output.out_features == 5\n\n    x = m(data[0])\n    assert x.size() == (10, 5)\n\n\ndef test_sequential_2(data):\n    m = SequentialLinear(10, 1, bias=False, h_neurons=(7, 4))\n    assert isinstance(m.layer_0, LinearLayer)\n    assert isinstance(m.layer_1, LinearLayer)\n    assert m.layer_0.linear.in_features == 10\n    assert m.layer_0.linear.out_features == 7\n    assert m.layer_0.linear.bias is None\n    assert m.layer_1.linear.in_features == 7\n    assert m.layer_1.linear.out_features == 4\n    assert m.layer_1.linear.bias is not None\n    assert m.output.in_features == 4\n    assert m.output.out_features == 1\n    assert m.output.bias is not None\n\n    x = m(data[0])\n    assert x.size() == (10, 1)\n\n\ndef test_sequential_3():\n    m = SequentialLinear(10, 1, bias=False, h_neurons=(0.7, 0.5))\n    assert m.layer_0.linear.in_features == 10\n    assert m.layer_0.linear.out_features == 7\n    assert m.layer_0.linear.bias is None\n    assert m.layer_1.linear.in_features == 7\n    assert m.layer_1.linear.out_features == 5\n    assert m.layer_1.linear.bias is not None\n    assert m.output.in_features == 5\n    assert m.output.out_features == 1\n    assert m.output.bias is not None\n\n\ndef test_sequential_4():\n    with pytest.raises(RuntimeError, match='illegal parameter type of <h_neurons>'):\n        SequentialLinear(10, 5, h_neurons=('NaN',))\n\n    with pytest.raises(RuntimeError, match='number of parameter not consistent with number of layers'):\n        SequentialLinear(10, 5, h_neurons=(4,), h_dropouts=(1, 5))\n\n    m = SequentialLinear(10, 1, h_neurons=(3, 4))\n    tmp = (1, 2)\n    assert id(m._check_input(tmp)) == id(tmp)\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/models/test_trainer.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport shutil\nfrom copy import deepcopy\nfrom pathlib import Path\n\nimport numpy as np\nimport pandas as pd\nimport pytest\nimport torch\nimport torch.nn.functional as F\nfrom torch.utils.data import DataLoader, TensorDataset\n\nfrom xenonpy.model.training import Trainer, MSELoss, CrossEntropyLoss, Adam, ExponentialLR, SGD, ClipValue, ReduceLROnPlateau, ClipNorm\nfrom xenonpy.model.training.extension import TensorConverter, Persist, Validator\nfrom xenonpy.model.training.dataset import ArrayDataset\n\n\nclass _Net(torch.nn.Module):\n\n    def __init__(self, n_feature, n_hidden, n_output):\n        super().__init__()\n        self.hidden = torch.nn.Linear(n_feature, n_hidden)  # hidden layer\n        self.predict = torch.nn.Linear(n_hidden, n_output)  # output layer\n\n    def forward(self, x_):\n        x_ = F.relu(self.hidden(x_))  # activation function for hidden layer\n        x_ = self.predict(x_)  # linear output\n        return x_\n\n\n@pytest.fixture(scope='module')\ndef data():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    model_dir: Path = Path(__file__).parent / 'model_dir'\n\n    torch.manual_seed(0)\n    np.random.seed(0)\n    x = torch.unsqueeze(torch.linspace(-1, 1, 100), dim=1)  # x data (tensor), shape=(100, 1)\n    y = x.pow(2) + 0.2 * torch.rand(x.size())  # noisy y data (tensor), shape=(100, 1)\n\n    net = _Net(n_feature=1, n_hidden=10, n_output=1)\n\n    yield net, (x, y)\n\n    if model_dir.exists():\n        shutil.rmtree(str(model_dir.resolve()))\n\n    print('test over')\n\n\ndef test_trainer_1(data):\n    trainer = Trainer()\n    assert trainer.device == torch.device('cpu')\n    assert trainer.model is None\n    assert trainer.optimizer is None\n    assert trainer.lr_scheduler is None\n    assert trainer.x_val is None\n    assert trainer.y_val is None\n    assert trainer.validate_dataset is None\n    assert trainer._init_states is None\n    assert trainer._optimizer_state is None\n    assert trainer.total_epochs == 0\n    assert trainer.total_iterations == 0\n    assert trainer.training_info is None\n    assert trainer.loss_type is None\n    assert trainer.loss_func is None\n\n    trainer = Trainer(optimizer=Adam(),\n                      loss_func=MSELoss(),\n                      lr_scheduler=ExponentialLR(gamma=0.99),\n                      clip_grad=ClipValue(clip_value=0.1))\n    assert isinstance(trainer._scheduler, ExponentialLR)\n    assert isinstance(trainer._optim, Adam)\n    assert isinstance(trainer.clip_grad, ClipValue)\n    assert isinstance(trainer.loss_func, MSELoss)\n\n\ndef test_trainer_2(data):\n    trainer = Trainer()\n    with pytest.raises(RuntimeError, match='no model for training'):\n        trainer.fit(*data[1])\n\n    with pytest.raises(TypeError, match='parameter `m` must be a instance of <torch.nn.modules>'):\n        trainer.model = {}\n\n    trainer.model = data[0]\n    assert isinstance(trainer.model, torch.nn.Module)\n    with pytest.raises(RuntimeError, match='no loss function for training'):\n        trainer.fit(*data[1])\n\n    trainer.loss_func = MSELoss()\n    assert trainer.loss_type == 'train_mse_loss'\n    assert trainer.loss_func.__class__ == MSELoss\n    with pytest.raises(RuntimeError, match='no optimizer for training'):\n        trainer.fit(*data[1])\n\n    trainer.optimizer = Adam()\n    assert isinstance(trainer.optimizer, torch.optim.Adam)\n    assert isinstance(trainer._optimizer_state, dict)\n    assert isinstance(trainer._init_states, dict)\n\n    trainer.lr_scheduler = ExponentialLR(gamma=0.99)\n    assert isinstance(trainer.lr_scheduler, torch.optim.lr_scheduler.ExponentialLR)\n\n\ndef test_trainer_3(data):\n    model = data[0]\n    trainer = Trainer(model=model, optimizer=Adam(), loss_func=MSELoss())\n    assert isinstance(trainer.model, torch.nn.Module)\n    assert isinstance(trainer.optimizer, torch.optim.Adam)\n    assert isinstance(trainer._optimizer_state, dict)\n    assert isinstance(trainer._init_states, dict)\n    assert trainer.clip_grad is None\n    assert trainer.lr_scheduler is None\n\n    trainer.lr_scheduler = ExponentialLR(gamma=0.1)\n    assert isinstance(trainer.lr_scheduler, torch.optim.lr_scheduler.ExponentialLR)\n\n    trainer.optimizer = SGD()\n    assert isinstance(trainer.optimizer, torch.optim.SGD)\n\n    trainer.clip_grad = ClipNorm(max_norm=0.4)\n    assert isinstance(trainer.clip_grad, ClipNorm)\n\n\ndef test_trainer_fit_1(data):\n    model = deepcopy(data[0])\n    trainer = Trainer(model=model, optimizer=Adam(), loss_func=MSELoss())\n    trainer.fit(*data[1])\n    assert trainer.total_iterations == 200\n    assert trainer.total_epochs == 200\n\n    trainer.fit(*data[1], epochs=20)\n    assert trainer.total_iterations == 220\n    assert trainer.total_epochs == 220\n\n    trainer.reset()\n    assert trainer.total_iterations == 0\n    assert trainer.total_epochs == 0\n\n    trainer.fit(*data[1], epochs=20)\n    assert trainer.total_iterations == 20\n    assert trainer.total_epochs == 20\n\n    assert isinstance(trainer.training_info, pd.DataFrame)\n    assert 'i_epoch' in trainer.training_info.columns\n\n    ret = trainer.to_namedtuple()\n    assert isinstance(ret, trainer.results_tuple)\n\n    train_set = DataLoader(TensorDataset(*data[1]))\n    with pytest.raises(RuntimeError, match='parameter <training_dataset> is exclusive of <x_train> and <y_train>'):\n        trainer.fit(*data[1], training_dataset=train_set)\n\n    with pytest.raises(RuntimeError, match='missing parameter <x_train> or <y_train>'):\n        trainer.fit(data[1][0])\n\n\ndef test_trainer_fit_2(data):\n    model = deepcopy(data[0])\n    trainer = Trainer(model=model, optimizer=Adam(), loss_func=MSELoss(), epochs=20)\n    trainer.fit(*data[1], *data[1])\n    assert trainer.total_iterations == 20\n    assert trainer.total_epochs == 20\n    assert (trainer.x_val, trainer.y_val) == data[1]\n\n    train_set = DataLoader(TensorDataset(*data[1]))\n    val_set = DataLoader(TensorDataset(*data[1]))\n    trainer.fit(training_dataset=train_set, validation_dataset=val_set)\n    assert trainer.total_iterations == 2020\n    assert trainer.total_epochs == 40\n    assert isinstance(trainer.validate_dataset, DataLoader)\n\n\ndef test_trainer_fit_3(data):\n    model = deepcopy(data[0])\n    trainer = Trainer(model=model, optimizer=Adam(), loss_func=MSELoss(), epochs=5)\n    trainer.fit(*data[1])\n    assert len(trainer.checkpoints.keys()) == 0\n\n    trainer.reset()\n    assert trainer.total_iterations == 0\n    assert trainer.total_epochs == 0\n    assert len(trainer.get_checkpoint()) == 0\n\n    trainer.fit(*data[1], checkpoint=True)\n    assert len(trainer.get_checkpoint()) == 5\n    assert isinstance(trainer.get_checkpoint(2), trainer.checkpoint_tuple)\n    assert isinstance(trainer.get_checkpoint('cp_2'), trainer.checkpoint_tuple)\n\n    with pytest.raises(TypeError, match='parameter <cp> must be str or int'):\n        trainer.get_checkpoint([])\n\n    trainer.reset(to=3, remove_checkpoints=False)\n    assert len(trainer.get_checkpoint()) == 5\n    assert isinstance(trainer.get_checkpoint(2), trainer.checkpoint_tuple)\n    assert isinstance(trainer.get_checkpoint('cp_2'), trainer.checkpoint_tuple)\n\n    trainer.reset(to='cp_3')\n    assert trainer.total_iterations == 0\n    assert trainer.total_epochs == 0\n    assert len(trainer.get_checkpoint()) == 0\n\n    with pytest.raises(TypeError, match='parameter <to> must be torch.nnModule, int, or str'):\n        trainer.reset(to=[])\n\n    # todo: need a real testing\n    trainer.fit(*data[1], checkpoint=True)\n    trainer.predict(*data[1], checkpoint=3)\n\n    trainer.reset()\n    trainer.fit(*data[1], checkpoint=lambda i: (True, f'new:{i}'))\n    assert len(trainer.get_checkpoint()) == 5\n    assert trainer.get_checkpoint() == list([f'new:{i + 1}' for i in range(5)])\n\n\ndef test_trainer_fit_4(data):\n    model = deepcopy(data[0])\n    trainer = Trainer(model=model,\n                      optimizer=Adam(),\n                      loss_func=MSELoss(),\n                      clip_grad=ClipValue(0.1),\n                      lr_scheduler=ReduceLROnPlateau(),\n                      epochs=10)\n\n    count = 1\n    for i in trainer(*data[1]):\n        assert isinstance(i, dict)\n        assert i['i_epoch'] == count\n        if count == 3:\n            trainer.early_stop('stop')\n        count += 1\n\n    assert trainer.total_epochs == 3\n    assert trainer._early_stopping == (True, 'stop')\n\n    trainer.reset()\n    train_set = DataLoader(TensorDataset(*data[1]))\n    count = 1\n    for i in trainer(training_dataset=train_set):\n        assert isinstance(i, dict)\n        assert i['i_batch'] == count\n        if count == 3:\n            trainer.early_stop('stop!!!')\n        count += 1\n    assert trainer.total_iterations == 3\n    assert trainer._early_stopping == (True, 'stop!!!')\n\n\ndef test_validator_1(data):\n    model = deepcopy(data[0])\n    trainer = Trainer(model=model, optimizer=Adam(lr=0.1), loss_func=MSELoss(), epochs=20)\n    trainer.extend(TensorConverter(), Validator('regress', early_stop=30, trace_order=1, warming_up=0, mae=0))\n    trainer.fit(*data[1], *data[1])\n    assert trainer.get_checkpoint() == ['mae']\n\n    model = deepcopy(data[0])\n    trainer = Trainer(model=model, optimizer=Adam(lr=0.1), loss_func=MSELoss(), epochs=20)\n    trainer.extend(TensorConverter(), Validator('regress', early_stop=30, trace_order=5, warming_up=50, mae=0))\n    trainer.fit(*data[1], *data[1])\n    assert trainer.get_checkpoint() == []\n\n\ndef test_persist_1(data):\n    model = deepcopy(data[0])\n    trainer = Trainer(model=model, optimizer=Adam(lr=0.1), loss_func=MSELoss(), epochs=200)\n    trainer.extend(TensorConverter(), Persist('model_dir'))\n    trainer.fit(*data[1], *data[1])\n\n    persist = trainer['persist']\n    checker = persist._checker\n    assert isinstance(persist, Persist)\n    assert isinstance(checker.model, torch.nn.Module)\n    assert isinstance(checker.describe, dict)\n    assert isinstance(checker.files, list)\n    assert set(checker.files) == {'model', 'init_state', 'model_structure', 'describe', 'training_info', 'final_state'}\n\n    trainer = Trainer.load(checker)\n    assert isinstance(trainer.training_info, pd.DataFrame)\n    assert isinstance(trainer.model, torch.nn.Module)\n    assert isinstance(trainer._training_info, list)\n    assert trainer.optimizer is None\n    assert trainer.lr_scheduler is None\n    assert trainer.x_val is None\n    assert trainer.y_val is None\n    assert trainer.validate_dataset is None\n    assert trainer._optimizer_state is None\n    assert trainer.total_epochs == 0\n    assert trainer.total_iterations == 0\n    assert trainer.loss_type is None\n    assert trainer.loss_func is None\n\n    trainer = Trainer.load(from_=checker.path,\n                           optimizer=Adam(),\n                           loss_func=MSELoss(),\n                           lr_scheduler=ExponentialLR(gamma=0.99),\n                           clip_grad=ClipValue(clip_value=0.1))\n    assert isinstance(trainer._scheduler, ExponentialLR)\n    assert isinstance(trainer._optim, Adam)\n    assert isinstance(trainer.clip_grad, ClipValue)\n    assert isinstance(trainer.loss_func, MSELoss)\n\n\ndef test_trainer_prediction_1(data):\n    model = deepcopy(data[0])\n    trainer = Trainer(model=model, optimizer=Adam(lr=0.1), loss_func=MSELoss(), epochs=200)\n    trainer.extend(TensorConverter())\n    trainer.fit(*data[1], *data[1])\n\n    trainer = Trainer(model=model).extend(TensorConverter(probability=True))\n    y_p = trainer.predict(data[1][0])\n    assert np.any(np.not_equal(y_p, data[1][1].numpy()))\n    assert np.equal(y_p, np.array([1.] * y_p.shape[0]).reshape(-1, 1)).all()\n\n    trainer = Trainer(model=model).extend(TensorConverter(probability=False))\n    y_p = trainer.predict(data[1][0])\n    assert np.any(np.not_equal(y_p, data[1][1].numpy()))\n    assert np.allclose(y_p, data[1][1].numpy(), rtol=0, atol=0.2)\n\n    y_p, y_t = trainer.predict(*data[1])\n    assert np.any(np.not_equal(y_p, y_t))\n    assert np.allclose(y_p, y_t, rtol=0, atol=0.2)\n\n    val_set = DataLoader(TensorDataset(*data[1]), batch_size=50)\n    y_p, y_t = trainer.predict(dataset=val_set)\n    assert np.any(np.not_equal(y_p, y_t))\n    assert np.allclose(y_p, y_t, rtol=0, atol=0.2)\n\n    with pytest.raises(RuntimeError, match='parameters <x_in> and <dataset> are mutually exclusive'):\n        trainer.predict(*data[1], dataset='not none')\n\n\ndef test_trainer_prediction_2():\n    model = _Net(n_feature=2, n_hidden=10, n_output=2)\n\n    n_data = np.ones((100, 2))\n    x0 = np.random.normal(2 * n_data, 1)\n    y0 = np.zeros(100)\n    x1 = np.random.normal(-2 * n_data, 1)\n    y1 = np.ones(100)\n\n    x = np.vstack((x0, x1))\n    y = np.concatenate((y0, y1))\n    s = np.arange(x.shape[0])\n    np.random.shuffle(s)\n    x, y = x[s], y[s]\n\n    trainer = Trainer(model=model, optimizer=Adam(lr=0.1), loss_func=CrossEntropyLoss(), epochs=200)\n    trainer.extend(TensorConverter(x_dtype=torch.float32, y_dtype=torch.long, argmax=True))\n    trainer.fit(x, y)\n\n    y_p, y_t = trainer.predict(x, y)\n    assert y_p.shape == (200,)\n    assert np.all(y_p == y_t)\n\n    # trainer.reset()\n    val_set = DataLoader(ArrayDataset(x, y, dtypes=(torch.float, torch.long)), batch_size=20)\n    trainer.extend(TensorConverter(x_dtype=torch.float32, y_dtype=torch.long, auto_reshape=False))\n    y_p, y_t = trainer.predict(dataset=val_set)\n    assert y_p.shape == (200, 2)\n\n    y_p = np.argmax(y_p, 1)\n    assert np.all(y_p == y_t)\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/models/test_utils.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport numpy as np\nimport pytest\n\nfrom xenonpy.model.utils import regression_metrics\n\n\n@pytest.fixture(scope='module')\ndef data():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    noise = 0.001\n    x = np.random.randn(100)\n    y = x + np.random.rand() * noise\n\n    yield x, y, noise\n    print('test over')\n\n\ndef test_regression_metrics_1(data):\n    x = data[0]\n    y = data[1]\n    noise = data[2]\n    metric = regression_metrics(x, y)\n    assert isinstance(metric, dict)\n    assert set(metric.keys()) == {'mae', 'mse', 'rmse', 'r2', 'pearsonr', 'spearmanr', 'p_value', 'max_ae'}\n    assert metric['mae'] < noise\n    assert metric['mse'] < noise ** 2\n    assert metric['rmse'] < noise\n    assert metric['r2'] > 0.9999\n    assert metric['pearsonr'] > 0.9999\n    assert metric['spearmanr'] > 0.9999\n    assert np.isclose(metric['p_value'], 0, 1e-4)\n    assert metric['max_ae'] < noise\n\n    assert metric['mae'] == regression_metrics(x.reshape(-1, 1), y)['mae']\n    assert metric['rmse'] == regression_metrics(x.reshape(-1, 1), y.reshape(-1, 1))['rmse']\n    assert metric['max_ae'] == regression_metrics(x, y.reshape(-1, 1))['max_ae']\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/models/test_wrapped.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n\nimport pytest\n\n\ndef test_import_loss():\n    try:\n        import xenonpy.model.training.loss\n    except ImportError:\n        assert \"should not raise ImportError\"\n        \n\ndef test_import_lr_scheduler():\n    try:\n        import xenonpy.model.training.lr_scheduler\n    except ImportError:\n        assert \"should not raise ImportError\"\n\ndef test_import_optimizer():\n    try:\n        import xenonpy.model.training.optimizer\n    except ImportError:\n        assert \"should not raise ImportError\"\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/utils/test_gadget.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n\nimport os\nfrom pathlib import Path\n\nimport pytest\n\nfrom xenonpy.utils import set_env, absolute_path, config, camel_to_snake\n\n\ndef test_camel_to_snake_1():\n    assert 'camel_to_snake' == camel_to_snake('CamelToSnake')\n\n\ndef test_set_env_1():\n    import os\n    with set_env(test_env='test'):\n        assert os.getenv('test_env') == 'test', 'should got \"test\"'\n    assert os.getenv('test_env') is None, 'no test_env'\n\n\ndef test_set_env_2():\n    import os\n    os.environ['test_env'] = 'foo'\n    with set_env(test_env='bar'):\n        assert os.getenv('test_env') == 'bar', 'should got \"bar\"'\n    assert os.getenv('foo') is None, 'foo'\n\n\ndef test_absolute_path_1():\n    path = absolute_path('.')\n    path = Path(path)\n    cwd = Path(os.getcwd())\n    assert path.parent.name == cwd.parent.name\n    assert path.name == cwd.name\n\n\ndef test_absolute_path_2():\n    path = absolute_path('../')\n    path = Path(path)\n    cwd = Path(os.getcwd())\n    assert path.name == cwd.parent.name\n\n\ndef test_absolute_path_3():\n    path = absolute_path('../other')\n    path = Path(path)\n    cwd = Path(os.getcwd())\n    assert path.name == 'other'\n    assert path.parent.name == cwd.parent.name\n\n\ndef test_config_1():\n    tmp = config('name')\n    assert tmp == 'xenonpy'\n\n    with pytest.raises(RuntimeError):\n        config('no_exist')\n\n    tmp = config(new_key='test')\n    assert tmp is None\n\n    tmp = config('new_key')\n    assert tmp == 'test'\n\n    tmp = config('github_username', other_key='other')\n    assert tmp == 'yoshida-lab'\n\n    tmp = config('other_key')\n    assert tmp == 'other'\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/utils/test_parameter_gen.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport numpy as np\nimport pytest\n\nfrom xenonpy.utils import ParameterGenerator\n\n\n@pytest.fixture(scope='module')\ndef data():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    yield dict(\n        int=5,\n        tuple=(0, 1, 2, 3),\n        func=lambda: np.random.randint(4),\n        tuple_dict_1=dict(data=(0, 1, 2, 3), repeat=(1, 2, 3)),\n        func_dict_1=dict(data=lambda i: np.random.randint(4, size=i), repeat=(1, 2, 3)),\n        tuple_dict_2=dict(data=(0, 1, 2, 3), repeat=2),\n        func_dict_2=dict(data=lambda i: np.random.randint(4, size=i), repeat='tuple_dict_1'),\n    )\n    print('test over')\n\n\ndef test_gen_1():\n    with pytest.raises(RuntimeError, match='need parameter candidate'):\n        ParameterGenerator()\n\n    test_data = (1, 2, 3)\n    pg = ParameterGenerator(a=test_data)\n    i_ = 0\n    for i, t in enumerate(pg(5)):\n        assert i_ == i\n        i_ += 1\n\n    for t, p in pg(5, factory=lambda a: a + 1):\n        assert t['a'] + 1 == p\n\n\ndef test_gen_2(data):\n    pg = ParameterGenerator(name=data['tuple'])\n    for t in pg(10):\n        assert 'name' in t\n        assert t['name'] in data['tuple']\n        assert 0 <= t['name'] < 4\n\n\ndef test_gen_3(data):\n    pg = ParameterGenerator(name=data['func'])\n    for t in pg(10):\n        assert 0 <= t['name'] < 4\n\n\ndef test_gen_4(data):\n    pg = ParameterGenerator(name=data['tuple_dict_1'])\n    for t in pg(10):\n        assert isinstance(t['name'], tuple)\n        assert len(t['name']) <= 3\n        for i in t['name']:\n            assert 0 <= i <= 3\n\n\ndef test_gen_5(data):\n    pg = ParameterGenerator(name=data['func_dict_1'])\n    for t in pg(10):\n        assert len(t['name']) <= 3\n        for i in t['name']:\n            assert 0 <= i <= 3\n\n\ndef test_gen_6(data):\n    pg = ParameterGenerator(name=data['tuple_dict_2'])\n    for t in pg(10):\n        assert len(t['name']) == 2\n        for i in t['name']:\n            assert 0 <= i <= 3\n\n\ndef test_gen_7(data):\n    pg = ParameterGenerator(name=data['int'])\n    for t in pg(10):\n        assert t['name'] == 5\n\n\ndef test_gen_8(data):\n    pg = ParameterGenerator(name=data['func_dict_2'])\n    with pytest.raises(KeyError):\n        for _ in pg(10):\n            pass\n\n    pg = ParameterGenerator(name=data['func_dict_2'], tuple_dict_1=data['tuple_dict_1'])\n    for t in pg(10):\n        assert 'tuple_dict_1' in t\n        assert len(t['name']) == len(t['tuple_dict_1'])\n        for i in t['name']:\n            assert 0 <= i <= 3\n        for i in t['name']:\n            assert 0 <= i <= 3\n\n    pg = ParameterGenerator(tuple_dict_1=data['tuple_dict_1'], name=data['func_dict_2'])\n    for t in pg(10):\n        assert 'tuple_dict_1' in t\n        assert len(t['name']) == len(t['tuple_dict_1'])\n        for i in t['name']:\n            assert 0 <= i <= 3\n        for i in t['name']:\n            assert 0 <= i <= 3\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "tests/utils/test_product.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n\nfrom itertools import product\n\nimport pytest\n\nfrom xenonpy.utils.math import Product\n\n\n@pytest.fixture(scope='module')\ndef data():\n    # ignore numpy warning\n    import warnings\n    print('ignore NumPy RuntimeWarning\\n')\n    warnings.filterwarnings(\"ignore\", message=\"numpy.dtype size changed\")\n    warnings.filterwarnings(\"ignore\", message=\"numpy.ndarray size changed\")\n\n    # prepare test data\n    a = ['a1', 'a2', 'a3']\n    b = ['b1', 'b2']\n    c = ['c1', 'c2']\n    d = ['d1', 'd2', 'd3']\n    yield (a, b, c, d)\n\n    print('test over')\n\n\ndef test_product_1(data):\n    abcd = list(product(*data))\n    p = Product(*data)\n    assert p.size == len(abcd), 'should have same length'\n    assert p[0] == abcd[0]\n    assert p[1] == abcd[1]\n    assert p[3] != abcd[4]\n    assert p[10] == abcd[10]\n    assert p[22] == abcd[22]\n    assert p[33] == abcd[33]\n\n    with pytest.raises(IndexError):\n        p[36]\n\n\ndef test_product_2(data):\n    with pytest.raises(ValueError):\n        Product(data[0], repeat=1.5)\n\n\ndef test_product_3(data):\n    abcd = list(product(data[0], repeat=1))\n    p = Product(data[0], repeat=1)\n    assert p.size == len(abcd), 'should have same length'\n    assert p[0] == abcd[0]\n    assert p[1] == abcd[1]\n    assert p[2] == abcd[2]\n\n\ndef test_product_4(data):\n    abcd = list(product(data[0], repeat=3))\n    p = Product(data[0], repeat=3)\n    assert p.size == len(abcd), 'should have same length'\n    assert p[0] == abcd[0]\n    assert p[1] == abcd[1]\n    assert p[3] != abcd[4]\n    assert p[5] == abcd[5]\n    print(p.paras)\n\n\ndef test_product_5(data):\n    abcd = list(product(product(*data), repeat=2))\n    p = Product(Product(*data), repeat=2)\n    assert p.size == len(abcd), 'should have same length'\n    assert p[0] == abcd[0]\n    assert p[1] == abcd[1]\n    assert p[50] != abcd[55]\n    assert p[333] == abcd[333]\n    assert p[555] == abcd[555]\n    assert p[666] != abcd[777]\n\n\nif __name__ == \"__main__\":\n    pytest.main()\n"
  },
  {
    "path": "xenonpy/__doc__.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n"
  },
  {
    "path": "xenonpy/__init__.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n# change version in there, conf.yml, setup.py\n\nfrom ._conf import *\n\n\ndef __init(force=False):\n    \"\"\"\n    Create config file is not exist at ~/.xenonpy/conf.yml\n\n    .. warning::\n\n        Set ``force=True`` will reset all which under the ``~/.xenonpy`` dir.\n\n    Args\n    ----\n    force: bool\n        force reset ``conf.yml`` to default and empty all dirs under ``~/.xenonpy``.\n    \"\"\"\n    from shutil import rmtree, copyfile\n    from ruamel.yaml import YAML\n    from sys import version_info\n    from pathlib import Path\n\n    if version_info[0] != 3 or version_info[1] < 6:\n        raise SystemError(\"Python version must be greater than or equal to 3.6\")\n\n    yaml = YAML(typ='safe')\n    yaml.indent(mapping=2, sequence=4, offset=2)\n    root_dir = Path(__cfg_root__)\n    root_dir.mkdir(parents=True, exist_ok=True)\n    user_cfg_file = root_dir / 'conf.yml'\n\n    if force:\n        rmtree(str(root_dir))\n\n    # copy default conf.yml to ~/.xenonpy\n    if not user_cfg_file.exists() or force:\n        copyfile(str(Path(__file__).parent / 'conf.yml'), str(user_cfg_file))\n    else:\n        user_cfg = yaml.load(user_cfg_file)\n        if 'version' not in user_cfg or user_cfg['version'] != __version__:\n            with open(str(Path(__file__).parent / 'conf.yml'), 'r') as f:\n                pack_cfg = yaml.load(f)\n            pack_cfg['userdata'] = user_cfg['userdata']\n            pack_cfg['usermodel'] = user_cfg['usermodel']\n            yaml.dump(pack_cfg, user_cfg_file)\n\n    # init dirs\n    user_cfg = yaml.load(user_cfg_file)\n    dataset_dir = root_dir / 'dataset'\n    cached_dir = root_dir / 'cached'\n    user_data_dir = Path(user_cfg['userdata']).expanduser().absolute()\n    user_model_dir = Path(user_cfg['usermodel']).expanduser().absolute()\n\n    # create dirs\n    dataset_dir.mkdir(parents=True, exist_ok=True)\n    cached_dir.mkdir(parents=True, exist_ok=True)\n    user_data_dir.mkdir(parents=True, exist_ok=True)\n    user_model_dir.mkdir(parents=True, exist_ok=True)\n\n\n__init()\n"
  },
  {
    "path": "xenonpy/__main__.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport argparse\nfrom os import remove, rename\nfrom pathlib import Path\n\nfrom tqdm import tqdm\n\nfrom .utils import config\n\n\ndef migrate(args_):\n    data_path = Path('~/.xenonpy/dataset').expanduser().absolute()\n    user_path = Path(config('userdata')).expanduser().absolute()\n\n    def migrate_(f):\n        path = data_path / f\n        if not path.exists():\n            return\n        if args_.keep:\n            path_ = user_path / f\n            rename(str(path), str(path_))\n        else:\n            remove(str(path))\n\n    for file in tqdm(['mp_inorganic.pkl.pd_', 'mp_structure.pkl.pd_', 'oqmd_inorganic.pkl.pd_',\n                      'oqmd_structure.pkl.pd_'], desc='migrating'):\n        migrate_(file)\n\n\nparser = argparse.ArgumentParser(\n    prog='XenonPy',\n    description='''\n    XenonPy is a Python library that implements a comprehensive set of\n    machine learning tools for materials informatics.\n    ''')\nsubparsers = parser.add_subparsers()\n\nparser_migrate = subparsers.add_parser('migrate', help='see `migrate -h`')\nparser_migrate.add_argument(\n    '-k',\n    '--keep',\n    action='store_true',\n    help=\n    'Keep files fetched from `yoshida-lab/dataset`. These files will be moved to `userdata` dir.'\n)\nparser_migrate.set_defaults(handler=migrate)\n\nargs = parser.parse_args()\nif hasattr(args, 'handler'):\n    args.handler(args)\nelse:\n    parser.print_help()\n"
  },
  {
    "path": "xenonpy/_conf.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom pathlib import Path\n\nfrom ruamel.yaml import YAML\n\n__all__ = [\n    '__pkg_name__',\n    '__version__',\n    '__db_version__',\n    '__release__',\n    '__short_description__',\n    '__license__',\n    '__author__',\n    '__author_email__',\n    '__maintainer__',\n    '__maintainer_email__',\n    '__github_username__',\n    '__cfg_root__',\n]\n\n\nclass __PackageInfo(object):\n\n    def __init__(self):\n        yaml = YAML(typ='safe')\n        yaml.indent(mapping=2, sequence=4, offset=2)\n        cwd = Path(__file__).parent / 'conf.yml'\n        with open(str(cwd), 'r') as f:\n            info = yaml.load(f)\n        self._info = info\n\n    def __getattr__(self, item):\n        try:\n            return self._info[item]\n        except KeyError:\n            return None\n\n\npackage_info = __PackageInfo()\n\n__pkg_name__ = package_info.name\n__version__ = package_info.version\n__db_version__ = package_info.db_version\n__release__ = package_info.release\n__short_description__ = package_info.short_description\n__license__ = package_info.license\n__author__ = package_info.author\n__author_email__ = package_info.author_email\n__maintainer__ = package_info.maintainer\n__maintainer_email__ = package_info.maintainer_email\n__github_username__ = package_info.github_username\n__cfg_root__ = str(Path.home().resolve() / ('.' + __pkg_name__))\n"
  },
  {
    "path": "xenonpy/conf.yml",
    "content": "###############\n# package info\n###############\nname: \"xenonpy\"\nversion: \"0.6.7\"\ndb_version: \"0.1.3\"\nrelease: \"\"\nshort_description: \"material descriptor library\"\nlicense: \"BSD (3-clause)\"\nauthor:\n  - \"TsumiNa\"\n  - \"stewu5\"\nauthor_email: \"liu.chang.1865@gmail.com\"\nmaintainer:\n  - \"TsumiNa\"\n  - \"stewu5\"\nmaintainer_email: \"liu.chang.1865@gmail.com\"\ngithub_username: \"yoshida-lab\"\n\n# sha256 of built-in dataset\natom_init: \"ac362e8bbce4b66987913b39e64b5554cf372e8f55dfc0cd76d6b2354059f84e\"\nelements: \"e9007e45786773c72d2e454ad17dc69f2cd8edf42e66313dc0d343b2b272eb45\"\nelements_completed: \"9a885ac06c99dd79e63bbb431f46d8131f078239a42df028edfe1052a45a2888\"\n\n#################################\n# user custom\n################################\n\n# user-defined path\nuserdata: \"~/.xenonpy/userdata\"\nusermodel: \"~/.xenonpy/usermodel\"\next_data: []\n"
  },
  {
    "path": "xenonpy/contrib/README.md",
    "content": "# XenonPy contrib\n\nAny code in this directory is not officially supported and may change or be removed at any time without notice.\n\nThe contrib directory contains project/source code directories from contributors.\nThese contributions/features may eventually be merged into the XenonPy package.\nXenonPy is meant to be a community based project.\nWe encourage users to share their codes with everyone to help enhancing the functionality of XenonPy. \nWhile these codes may still undergo changes, updates, or extra testings,\nusers may create a new folder for their contributions if they are relatively complete.\nIf the contribution is still in the form of code fragments,\nwe still encourage users to share them inside the `sample_codes` folder,\nwhere code contributions are not expected to be complete.\n\nWhen adding a project, please stick to the following directory structure:\n\n1. Create a project directory in `contrib/` with your project name, e.g., `contrib/my_project/`.\n2. Provide a `README.md` under the root of the project directory, e.g., `contrib/my_project/README.md`.\n3. Add unit test code (using pytest) under the `$ROOT/tests/contrib/my_project/`.\n\nFor example, if you create a project named `foo` with source file `foo.py` and the testing file `foo_test.py`. \nIn `contrib/`, they are part of the project `foo`, and their full path is `$ROOT/xenonpy/contrib/foo/foo.py`,\nand in `tests`, the full path is `$ROOT/tests/contrib/foo/test_foo.py`.\n\nWe prepared the `sample_codes` folder for contributors who want to share codes,\nwhich are not complete as a stand-alone project or test codes are not available.\n"
  },
  {
    "path": "xenonpy/contrib/__init__.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n# Add projects here\n"
  },
  {
    "path": "xenonpy/contrib/extend_descriptors/README.md",
    "content": "# Extend Descriptors\n\n## FrozenFeaturizerDescriptor\n\nThis is a sample code for creating artificial descriptor based on a trained neural network.\nThis code creates a BaseFeaturizer object in XenonPy that can be used as input for training models.\nThe input is in the same format as the input of the descriptor used in the neural network.\n\nBy passing both the XenonPy descriptor object and XenonPy frozen featurizer object into this class when creating the Base Featurizer, the output will be a dataframe same as other typical XenonPy descriptors, while the number of columns is the number of neurons in the chosen hidden layers.\n\n\n## Mordred2DDescriptor\n\nThis is a sample code for calculating the 2D Mordred descriptor:\nhttps://github.com/mordred-descriptor/mordred\n\nThis code creates a BaseFeaturizer object in XenonPy that can be used as input for training models.\n\n## OrganicCompDescriptor\n\nThis is a sample code for calculating the XenonPy compositional descriptors for organic molecules in SMILES or RDKit MOL format:\nhttps://xenonpy.readthedocs.io/en/latest/features.html#compositional-descriptors\n\nThis code creates a BaseFeaturizer object in XenonPy that can be used as input for training models.\n\n-----------\nwritten by Stephen Wu, 2019.05.31\nupdated by Stephen Wu, 2019.07.11\n"
  },
  {
    "path": "xenonpy/contrib/extend_descriptors/__init__.py",
    "content": "#  Copyright (c) 2021. stewu5. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n"
  },
  {
    "path": "xenonpy/contrib/extend_descriptors/descriptor/__init__.py",
    "content": "#  Copyright (c) 2021. stewu5. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom .frozen_featurizer_descriptor import FrozenFeaturizerDescriptor\nfrom .mordred_descriptor import Mordred2DDescriptor\n"
  },
  {
    "path": "xenonpy/contrib/extend_descriptors/descriptor/frozen_featurizer_descriptor.py",
    "content": "#  Copyright (c) 2021. stewu5. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom typing import Union\n\nfrom xenonpy.descriptor import FrozenFeaturizer\nfrom xenonpy.descriptor.base import BaseFeaturizer, BaseDescriptor\n\n\nclass FrozenFeaturizerDescriptor(BaseFeaturizer):\n\n    def __init__(self, descriptor_calculator: Union[BaseDescriptor, BaseFeaturizer],\n                 frozen_featurizer: FrozenFeaturizer, *,\n                 on_errors='raise',\n                 return_type='any'):\n        \"\"\"\n        A featurizer for extracting artificial descriptors from neural networks\n\n        Parameters\n        ----------\n        descriptor_calculator : BaseFeaturizer or BaseDescriptor\n            Convert input data into descriptors to keep consistency with the pre-trained model.\n        frozen_featurizer : FrozenFeaturizer\n            Extracting artificial descriptors from neural networks\n        \"\"\"\n\n        # fix n_jobs to be 0 to skip automatic wrapper in XenonPy BaseFeaturizer class\n        super().__init__(n_jobs=0, on_errors=on_errors, return_type=return_type)\n        self.FP = descriptor_calculator\n        self.FP.on_errors = on_errors\n        self.FP.return_type = return_type\n        self.ff = frozen_featurizer\n        self.output = None\n        self.__authors__ = ['Stephen Wu', 'TsumiNa']\n\n    def featurize(self, x, *, depth=1):\n        # transform input to descriptor dataframe\n        tmp_df = self.FP.transform(x)\n        # convert descriptor dataframe to hidden layer dataframe\n        self.output = self.ff.transform(tmp_df, depth=depth, return_type='df')\n        return self.output\n\n    @property\n    def feature_labels(self):\n        # column names based on xenonpy frozen featurizer setting\n        return self.output.columns\n"
  },
  {
    "path": "xenonpy/contrib/extend_descriptors/descriptor/mordred_descriptor.py",
    "content": "#  Copyright (c) 2021. stewu5. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport pandas as pd\nfrom mordred import Calculator, descriptors\nfrom rdkit import Chem\nfrom xenonpy.descriptor.base import BaseFeaturizer\n\n\nclass Mordred2DDescriptor(BaseFeaturizer):\n\n    def __init__(self, *, on_errors='raise', return_type='any'):\n        # fix n_jobs to be 0 to skip automatic wrapper in XenonPy BaseFeaturizer class\n        super().__init__(n_jobs=0, on_errors=on_errors, return_type=return_type)\n        self.output = None\n        self.__authors__ = ['Stephen Wu', 'TsumiNa']\n\n    def featurize(self, x):\n        # check if type(x) = list\n        if isinstance(x, pd.Series):\n            x = x.tolist()\n        if not isinstance(x, list):\n            x = [x]\n        # check input format, assume SMILES if not RDKit-MOL\n        if not isinstance(x[0], Chem.rdchem.Mol):\n            x_mol = []\n            for z in x:\n                x_mol.append(Chem.MolFromSmiles(z))\n                if x_mol[-1] is None:\n                    raise ValueError('can not convert Mol from SMILES %s' % z)\n        else:\n            x_mol = x\n\n        calc = Calculator(descriptors, ignore_3D=True)\n        self.output = calc.pandas(x_mol)\n        return self.output\n\n    @property\n    def feature_labels(self):\n        return self.output.columns\n"
  },
  {
    "path": "xenonpy/contrib/extend_descriptors/descriptor/organic_comp_descriptor.py",
    "content": "#  Copyright (c) 2021. stewu5. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.e\n\nfrom collections import Counter\n\nimport pandas as pd\nfrom rdkit import Chem\nfrom xenonpy.descriptor import Compositions\nfrom xenonpy.descriptor.base import BaseFeaturizer\n\n\nclass OrganicCompDescriptor(BaseFeaturizer):\n\n    def __init__(self, n_jobs=-1, *, featurizers='all', on_errors='raise', return_type='any'):\n        \"\"\"\n        A featurizer for extracting XenonPy compositional descriptors from SMILES or MOL\n        \"\"\"\n\n        # fix n_jobs to be 0 to skip automatic wrapper in XenonPy BaseFeaturizer class\n        super().__init__(n_jobs=0, on_errors=on_errors, return_type=return_type)\n        self._cal = Compositions(n_jobs=n_jobs, featurizers=featurizers, on_errors=on_errors)\n\n    def featurize(self, x):\n        # check if type(x) = list\n        if isinstance(x, pd.Series):\n            x = x.tolist()\n        if not isinstance(x, list):\n            x = [x]\n        # check input format, assume SMILES if not RDKit-MOL\n        if not isinstance(x[0], Chem.rdchem.Mol):\n            x_mol = []\n            for z in x:\n                x_mol.append(Chem.MolFromSmiles(z))\n                if x_mol[-1] is None:\n                    raise ValueError('can not convert Mol from SMILES %s' % z)\n        else:\n            x_mol = x\n\n        # convert to counting dictionary\n        mol = [Chem.AddHs(z) for z in x_mol]\n        d_list = [dict(Counter([atom.GetSymbol() for atom in z.GetAtoms()])) for z in mol]\n\n        self.output = self._cal.transform(d_list)\n\n        return self.output\n\n    @property\n    def feature_labels(self):\n        return self.output.columns\n"
  },
  {
    "path": "xenonpy/contrib/ismd/README.md",
    "content": "# New BaseProposal class\n\n## reactant_pool\n\nThis is a sample code of a new class of BaseProposal, called ReactantPool.\nReactantPool allows generation of molecules based on virtual reaction of reactants in a predefined pool of reactants. Initialization of this class requires a pretrained reactor, a ``pandas.DataFrame`` of reactant candidates, and a pre-calculated similarity matrix between all pairs of reactant candidates. Based on an initial set of reactant pairs, new reactant pairs are randomly sampled based on the similarity matrix and then reacted with the reactor to create a list of products, which are added to the input ``pandas.DataFrame``.\n\n\n## reactor\nThis is the molecular transformer model used for reaction prediction.\nThis class is used to load the pre-trained molecular transformer model and create a Reactor instance as the reactor for ReactantPool.\n\n\n-----------\nwritten by Qi Zhang, 2021.01.16 updated by Stephen Wu, 2021.01.16\n"
  },
  {
    "path": "xenonpy/contrib/ismd/__init__.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n__all__ = ['Reactor', 'load_reactor', 'ReactantPool']\nfrom .reactant_pool import ReactantPool\nfrom .reactor import Reactor, load_reactor\n"
  },
  {
    "path": "xenonpy/contrib/ismd/reactant_pool.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n# -*- coding: utf-8 -*-\n\nfrom xenonpy.inverse.base import BaseProposal, ProposalError\nimport random\nimport pandas as pd\n\n\nclass ReactantNotInPoolError(ProposalError):\n\n    def __init__(self, r_id):\n        super().__init__(\"reactant id {} is not in the reactant pool\".format(r_id))\n\n\nclass NotSquareError(ProposalError):\n\n    def __init__(self, n_row=0, n_col=0):\n        super().__init__(\"dataframe of shape {} * {} is not square\".format(n_row, n_col))\n\n\nclass SimPoolnotmatchError(ProposalError):\n\n    def __init__(self, n_pool=0, n_sim=0):\n        super().__init__(\n            \"reactant pool with length {} dose not match the size of similarity matrix of size {} * {}\"\n            .format(n_pool, n_sim, n_sim))\n\n\nclass NoSampleError(ProposalError):\n\n    def __init__(self):\n        super().__init__(\"sample is empty\")\n\n\nclass ReactantPool(BaseProposal):\n\n    def __init__(self,\n                 *,\n                 pool_df=None,\n                 sim_df=None,\n                 reactor=None,\n                 pool_smiles_col='SMILES',\n                 sim_id_in_pool=None,\n                 sample_reactant_idx_col='reactant_idx',\n                 sample_reactant_smiles_col='reactant_smiles',\n                 sample_product_smiles_col='product_smiles',\n                 splitter='.'):\n        \"\"\"\n        A module consists the reactant pool for proposal\n\n        Parameters\n        ----------\n        pool_df: [pandas.DataFrame]\n            a dataframe contains the all usable reactants,\n        sim_df: [pandas.DataFrame]\n            a matrix of similarity between each pair of reactant in pool_df, size len(pool_df)*len(pool_df).\n        reactor: [xenonpy.contrib.ismd.Reactor]\n            reaction prediction model.\n        pool_smiles_col: [str]\n            the column name of reactant SMILES in the pool_df,\n        sim_id_in_pool: [str]\n            the column name of id in pool_df corresponding to sim_df, if None, use index.\n        sample_reactant_idx_col: [str]\n            the column name of reactant id in sample dataframe.\n        #sample_reactant_idx_old_col: [str]\n            the column name of old reactant id in sample dataframe, copied from sample_reactant_idx_col before proposal.\n        sample_reactant_smiles_col: [str]\n            the column name of reactant SMILES in sample dataframe\n        sample_product_smiles_col: [str]\n            the column name of product SMILES in sample dataframe\n        splitter: [str]\n            string used for concatenating reactant in a reactant set.\n        \"\"\"\n        if sim_df.shape[0] != sim_df.shape[1]:\n            raise NotSquareError(sim_df.shape[0], sim_df.shape[1])\n\n        if pool_df.shape[0] != sim_df.shape[0]:\n            raise SimPoolnotmatchError(pool_df.shape[0], sim_df.shape[0])\n\n        if sim_id_in_pool is not None:\n            self._pool_df = pool_df.set_index(sim_id_in_pool)\n        else:\n            self._pool_df = pool_df\n        self._sim_df = sim_df\n        self._reactor = reactor\n        self._pool_smiles_col = pool_smiles_col\n        self._sample_reactant_idx_col = sample_reactant_idx_col\n        self._sample_reactant_smiles_col = sample_reactant_smiles_col\n        self._sample_product_smiles_col = sample_product_smiles_col\n        self._splitter = splitter\n\n    def single_index2reactant(self, reactant) -> str:\n        \"\"\"\n        convert a list of index to string concatenated by the splitter.\n\n        Parameters\n        ----------\n        reactant: [list]\n            list of reactant id (e.g. [45011, 29392])\n\n        Returns\n        -------\n            reactant_smiles: [str]\n                reactant SMILES concatenated by the splitter (e.g. CC(C)Br.COc1ccc(C=O)cc1O)\n        \"\"\"\n        r_list = [self._pool_df.iloc[r][self._pool_smiles_col] for r in reactant]\n        return self._splitter.join(r_list)\n\n    def index2sim(self, r_idx_old):\n        \"\"\"\n        substitute the reactant id by a similar one.\n\n        Parameters\n        ----------\n        r_idx_old: [int]\n            reactant id to be substituted (e.g. 29392)\n\n        Returns\n        -------\n            r_idx_new: [int]\n                an id of reactant similar to r_idx_old (e.g. 9980)\n        \"\"\"\n        if r_idx_old not in self._pool_df.index:\n            raise ReactantNotInPoolError(r_idx_old)\n        sim_col = self._sim_df[[r_idx_old]].drop(r_idx_old)\n        sim_col = sim_col.loc[sim_col[r_idx_old] != 0]\n        if len(sim_col) > 0:\n            r_idx_new = random.choices(population=sim_col.index, weights=sim_col[r_idx_old], k=1)[0]\n        else:\n            r_idx_new = random.choices(population=self._sim_df[[r_idx_old]].drop(r_idx_old).index,\n                                       k=1)[0]\n        return r_idx_new\n\n    def single_proposal(self, reactant):\n        \"\"\"\n        substitute a randomly selected reactant id in reactant by a similar one.\n\n        Parameters\n        ----------\n        reactant: [list]\n            list of id (e.g. [45011, 29392])\n\n        Returns\n        -------\n        r_idx_new: [list]\n            list of id (e.g. [45011, 9980])\n        \"\"\"\n        modify_idx = random.choice(list(range(len(reactant))))\n        r_idx_old = reactant[modify_idx]\n        r_idx_new = self.index2sim(r_idx_old)\n        new_reactant = reactant[:]\n        new_reactant[modify_idx] = r_idx_new\n        return new_reactant\n\n    def proposal(self, sample_df):\n        \"\"\"\n        1, perform single_propopsal to all of the reactant list,\n        2, convert reactant id to reactant SMILES\n        3, perform reactant prediction\n\n        Parameters\n        ----------\n        sample_df: [pandas.DataFrame]\n            sample dataframe\n\n        Returns\n        -------\n        sample_df: [pandas.DataFrame]\n            modified sample dataframe \n        \"\"\"\n        if len(sample_df) == 0:\n            raise NoSampleError()\n        new_sample_df = pd.DataFrame(columns=sample_df.columns)\n        old_list = [list(r) for r in sample_df[self._sample_reactant_idx_col]]\n        new_sample_df[self._sample_reactant_idx_col] = [\n            self.single_proposal(reactant) for reactant in old_list\n        ]\n        new_sample_df[self._sample_reactant_smiles_col] = [\n            self.single_index2reactant(id_str)\n            for id_str in new_sample_df[self._sample_reactant_idx_col]\n        ]\n        new_sample_df[self._sample_product_smiles_col] = self._reactor.react(\n            new_sample_df[self._sample_reactant_smiles_col])\n        return new_sample_df\n"
  },
  {
    "path": "xenonpy/contrib/ismd/reactor.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport argparse\nimport warnings\n\ntry:\n    from onmt.translate.translator import build_translator\n    from onmt.translate.translator import Translator\n    import onmt.inputters\n    import onmt.translate\n    import onmt\n    import onmt.model_builder\n    import onmt.modules\nexcept ImportError as e:\n    warnings.warn(\n        f\"Can not import package {e}, the ismd is unavailable. To install onmt, see: https://github.com/OpenNMT/OpenNMT-py\"\n    )\n\n\nclass SMILESInvalidError(Exception):\n\n    def __init__(self, smi):\n        super().__init__(\"SMILES {} is not tokenizable.\".format(smi))\n\n\ndef smi_tokenizer(smi) -> str:\n    \"\"\"\n    Tokenize a SMILES molecule or reaction\n\n    Parameters\n    ----------\n    smi: [str]\n        SMILES\n\n    Returns\n    -------\n    tokenized SMILES\n    \"\"\"\n    import re\n    pattern = \"(\\[[^\\]]+]|Br?|Cl?|N|O|S|P|F|I|b|c|n|o|s|p|\\(|\\)|\\.|=|#|-|\\+|\\\\\\\\|\\/|:|~|@|\\?|>|\\*|\\$|\\%[0-9]{2}|[0-9])\"\n    regex = re.compile(pattern)\n    tokens = [token for token in regex.findall(smi)]\n    if smi != ''.join(tokens):\n        raise SMILESInvalidError(smi)\n    return ' '.join(tokens)\n\n\nclass Reactor():\n\n    def __init__(self, model: Translator):\n        \"\"\"\n        A chemical reaction prediction model\n\n        Parameters\n        ----------\n        model: [onmt.translate.translator.Translator]\n            A molecular transformer model for reaction prediction\n        \"\"\"\n        self._model = model\n\n    def react(self, reactant_list, *, batch_size=64) -> list:\n        \"\"\"\n        Tokenize a SMILES molecule or reaction\n\n        Parameters\n        ----------\n        reactant_list: [list]\n            list of reactant \n\n        Returns\n        -------\n            product_list: [list]\n                all_predictions is a list of `batch_size` lists of `n_best` predictions\n        \"\"\"\n        reactant_token_list = [smi_tokenizer(s) for s in reactant_list]\n        _, product_list = self._model.translate(src=reactant_token_list,\n                                                src_dir='',\n                                                batch_size=batch_size,\n                                                attn_debug=False)\n        product_list = [s[0].replace(' ', '') for s in product_list]\n\n        return product_list\n\n\ndef load_reactor(max_length=200, *, device_id=-1, model_path='') -> Reactor:\n    \"\"\"\n    Loader of reaction prediction model\n\n    Parameters\n    ----------\n    max_length: [int]\n        maxmal length of product SMILES\n    device_id: [int]\n        cpu: -1; gpu: 0,1,2,3...\n    model_path: [str]\n        path of transformer file.\n\n    Returns\n    -------\n        Reactor : A chemical reaction prediction model\n    \"\"\"\n    parser = argparse.ArgumentParser(description='translate.py',\n                                     formatter_class=argparse.ArgumentDefaultsHelpFormatter)\n    onmt.opts.translate_opts(parser)\n    opt = parser.parse_args([\n        '-src', 'dummy_src', '-model', model_path, '-replace_unk', '-max_length',\n        str(max_length), '-gpu',\n        str(device_id)\n    ])\n    translator = build_translator(opt, report_score=False)\n\n    return Reactor(translator)\n"
  },
  {
    "path": "xenonpy/contrib/sample_codes/Binary_likelihood/binary_likelihood.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# Filter-based likelihood\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"2019.12.24\\n\",\n    \"Stephen Wu\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"This sample code demonstrates how to construct likelihood used for filtering molecules based on fragments or other specific physical properties. The created likelihood can be combined with other likelihood through the BaseLogLikelihoodSet class and be used in the iQSPR inverse design loop.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# import basic libraries\\n\",\n    \"\\n\",\n    \"import pandas as pd\\n\",\n    \"import numpy as np\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# examples of molecules used for testing\\n\",\n    \"\\n\",\n    \"smis = ['CC(=O)OC(CC(=O)[O-])C[N+](C)(C)C',\\n\",\n    \"'CC(=O)OC(CC(=O)O)C[N+](C)(C)C',\\n\",\n    \"'C1=CC(C(C(=C1)C(=O)O)O)O',\\n\",\n    \"'CC(CN)O',\\n\",\n    \"'C(C(=O)COP(=O)(O)O)N',\\n\",\n    \"'C1=CC(=C(C=C1[N+](=O)[O-])[N+](=O)[O-])Cl',\\n\",\n    \"'CCN1C=NC2=C1N=CN=C2N',\\n\",\n    \"'CCC(C)(C(C(=O)O)O)O',\\n\",\n    \"'C1(C(C(C(C(C1O)O)OP(=O)(O)O)O)O)O',\\n\",\n    \"'C1C(NC2=C(N1)NC(=NC2=O)N)CN(C=O)C3=CC=C(C=C3)C(=O)NC(CCC(=O)O)C(=O)O',\\n\",\n    \"'C(CCl)Cl',\\n\",\n    \"'C1=C(C=C(C(=C1O)O)O)O',\\n\",\n    \"'C1=CC(=C(C=C1Cl)Cl)Cl',\\n\",\n    \"'CCCCCC(=O)C=CC1C(CC(=O)C1CCCCCCC(=O)O)O',\\n\",\n    \"'CC12CCC(=O)CC1CCC3C2CCC4(C3CCC4O)C',\\n\",\n    \"'C1CCC(=O)NCCCCCC(=O)NCC1',\\n\",\n    \"'C1C=CC(=NC1C(=O)O)C(=O)O',\\n\",\n    \"'C(C(C(C(=O)C(=O)C(=O)O)O)O)O',\\n\",\n    \"'C1=CC(=C(C(=C1)O)O)C(=O)O',\\n\",\n    \"'C1=CC(=C(C(=C1)O)O)CCC(=O)O']\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Due to the flexibility of XenonPy, there are many ways to achieve our goal. Here, we show only one possible way that may be easier for re-using in different projects or problem setup. \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"For example, assume that we want to pick out molecules with a benzene ring and a carbonyl group while the total molecular weight is less than 200. First, we can make corresponding BaseFeaturizers classes such that when the conditions are met, the featurizer will return 1 (True), and 0 (False) otherwise. Considering reusability, we make separated featurizer for checking molecular weight and fragments, then we combine them with the BaseDescriptor class in XenonPy. Second, we will make a BaseLogLikelihood to convert the False values to negative infinity (or a very large negative value) and the True values to 0.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"First, let us try to make the featurizers.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# BaseFeaturizer for checking molecular weight\\n\",\n    \"\\n\",\n    \"from rdkit import Chem\\n\",\n    \"from rdkit.Chem import rdMolDescriptors as rdMol\\n\",\n    \"from xenonpy.descriptor.base import BaseFeaturizer\\n\",\n    \"\\n\",\n    \"class MolWeight_binary(BaseFeaturizer):\\n\",\n    \"\\n\",\n    \"    def __init__(self,\\n\",\n    \"                 n_jobs=-1,\\n\",\n    \"                 *,\\n\",\n    \"                 target=None,\\n\",\n    \"                 input_type='any',\\n\",\n    \"                 on_errors='raise',\\n\",\n    \"                 return_type='any'):\\n\",\n    \"        \\\"\\\"\\\"\\n\",\n    \"        RDKit fingerprint.\\n\",\n    \"        Parameters\\n\",\n    \"        ----------\\n\",\n    \"        n_jobs: int\\n\",\n    \"            The number of jobs to run in parallel for both fit and predict.\\n\",\n    \"            Can be -1 or # of cups. Set -1 to use all cpu cores (default).\\n\",\n    \"        target: (float, float)\\n\",\n    \"            Lower and upper bound of the molecular weight\\n\",\n    \"        input_type: string\\n\",\n    \"            Set the specific type of transform input.\\n\",\n    \"            Set to ``mol`` (default) to ``rdkit.Chem.rdchem.Mol`` objects as input.\\n\",\n    \"            When set to ``smlies``, ``transform`` method can use a SMILES list as input.\\n\",\n    \"            Set to ``any`` to use both.\\n\",\n    \"            If input is SMILES, ``Chem.MolFromSmiles`` function will be used inside.\\n\",\n    \"            for ``None`` returns, a ``ValueError`` exception will be raised.\\n\",\n    \"        on_errors: string\\n\",\n    \"            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\\n\",\n    \"            When 'nan', return a column with ``np.nan``.\\n\",\n    \"            The length of column corresponding to the number of feature labs.\\n\",\n    \"            When 'keep', return a column with exception objects.\\n\",\n    \"            The default is 'raise' which will raise up the exception.\\n\",\n    \"        \\\"\\\"\\\"\\n\",\n    \"        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type)\\n\",\n    \"        self.input_type = input_type\\n\",\n    \"        if target is None:\\n\",\n    \"            raise RuntimeError('<target> is empty')\\n\",\n    \"        else:\\n\",\n    \"            self.target = target\\n\",\n    \"        self.__authors__ = ['Stephen Wu']\\n\",\n    \"\\n\",\n    \"    def featurize(self, x):\\n\",\n    \"        if self.input_type == 'smiles':\\n\",\n    \"            x_ = x\\n\",\n    \"            x = Chem.MolFromSmiles(x)\\n\",\n    \"            if x is None:\\n\",\n    \"                raise ValueError('can not convert Mol from SMILES %s' % x_)\\n\",\n    \"        if self.input_type == 'any':\\n\",\n    \"            if not isinstance(x, Chem.rdchem.Mol):\\n\",\n    \"                x_ = x\\n\",\n    \"                x = Chem.MolFromSmiles(x)\\n\",\n    \"                if x is None:\\n\",\n    \"                    raise ValueError('can not convert Mol from SMILES %s' % x_)\\n\",\n    \"                    \\n\",\n    \"        tmp = rdMol.CalcExactMolWt(x)\\n\",\n    \"        \\n\",\n    \"        return (tmp > self.target[0]) and (tmp < self.target[1])\\n\",\n    \"\\n\",\n    \"    @property\\n\",\n    \"    def feature_labels(self):\\n\",\n    \"        return [\\\"MolW_bin\\\"]\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {\n    \"scrolled\": true\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>MolW_bin</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>6</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>7</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>8</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>9</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>10</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>11</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>12</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>13</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>14</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>15</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>16</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>17</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>18</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>19</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"    MolW_bin\\n\",\n       \"0      False\\n\",\n       \"1      False\\n\",\n       \"2       True\\n\",\n       \"3       True\\n\",\n       \"4       True\\n\",\n       \"5      False\\n\",\n       \"6       True\\n\",\n       \"7       True\\n\",\n       \"8      False\\n\",\n       \"9      False\\n\",\n       \"10      True\\n\",\n       \"11      True\\n\",\n       \"12      True\\n\",\n       \"13     False\\n\",\n       \"14     False\\n\",\n       \"15     False\\n\",\n       \"16      True\\n\",\n       \"17      True\\n\",\n       \"18      True\\n\",\n       \"19      True\"\n      ]\n     },\n     \"execution_count\": 4,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# testing if it works\\n\",\n    \"\\n\",\n    \"fea = MolWeight_binary(target=(-np.inf,200), on_errors='nan', return_type='df')\\n\",\n    \"fea.transform(smis)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# BaseFeaturizer for checking existence of fragments\\n\",\n    \"\\n\",\n    \"from rdkit import Chem\\n\",\n    \"from xenonpy.descriptor.base import BaseFeaturizer\\n\",\n    \"\\n\",\n    \"class Frag_binary(BaseFeaturizer):\\n\",\n    \"\\n\",\n    \"    def __init__(self,\\n\",\n    \"                 n_jobs=-1,\\n\",\n    \"                 *,\\n\",\n    \"                 target=None,\\n\",\n    \"                 input_type='any',\\n\",\n    \"                 on_errors='raise',\\n\",\n    \"                 return_type='any'):\\n\",\n    \"        \\\"\\\"\\\"\\n\",\n    \"        RDKit fingerprint.\\n\",\n    \"        Parameters\\n\",\n    \"        ----------\\n\",\n    \"        n_jobs: int\\n\",\n    \"            The number of jobs to run in parallel for both fit and predict.\\n\",\n    \"            Can be -1 or # of cups. Set -1 to use all cpu cores (default).\\n\",\n    \"        target: list(str)\\n\",\n    \"            List of fragment in SMARTS.\\n\",\n    \"        input_type: string\\n\",\n    \"            Set the specific type of transform input.\\n\",\n    \"            Set to ``mol`` (default) to ``rdkit.Chem.rdchem.Mol`` objects as input.\\n\",\n    \"            When set to ``smlies``, ``transform`` method can use a SMILES list as input.\\n\",\n    \"            Set to ``any`` to use both.\\n\",\n    \"            If input is SMILES, ``Chem.MolFromSmiles`` function will be used inside.\\n\",\n    \"            for ``None`` returns, a ``ValueError`` exception will be raised.\\n\",\n    \"        on_errors: string\\n\",\n    \"            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\\n\",\n    \"            When 'nan', return a column with ``np.nan``.\\n\",\n    \"            The length of column corresponding to the number of feature labs.\\n\",\n    \"            When 'keep', return a column with exception objects.\\n\",\n    \"            The default is 'raise' which will raise up the exception.\\n\",\n    \"        \\\"\\\"\\\"\\n\",\n    \"        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type)\\n\",\n    \"        self.input_type = input_type\\n\",\n    \"        if target is None:\\n\",\n    \"            raise RuntimeError('<target> is empty')\\n\",\n    \"        elif isinstance(target, str):\\n\",\n    \"            self.target = [target]\\n\",\n    \"        else:\\n\",\n    \"            self.target = target\\n\",\n    \"        self.mol = [Chem.MolFromSmarts(x) for x in self.target]\\n\",\n    \"        if any([x is None for x in self.mol]):\\n\",\n    \"            raise RuntimeError('At least one <target> is invalid SMARTS')\\n\",\n    \"        self.__authors__ = ['Stephen Wu']\\n\",\n    \"\\n\",\n    \"    def featurize(self, x):\\n\",\n    \"        if self.input_type == 'smiles':\\n\",\n    \"            x_ = x\\n\",\n    \"            x = Chem.MolFromSmiles(x)\\n\",\n    \"            if x is None:\\n\",\n    \"                raise ValueError('can not convert Mol from SMILES %s' % x_)\\n\",\n    \"        if self.input_type == 'any':\\n\",\n    \"            if not isinstance(x, Chem.rdchem.Mol):\\n\",\n    \"                x_ = x\\n\",\n    \"                x = Chem.MolFromSmiles(x)\\n\",\n    \"                if x is None:\\n\",\n    \"                    raise ValueError('can not convert Mol from SMILES %s' % x_)\\n\",\n    \"        \\n\",\n    \"        return np.array([x.HasSubstructMatch(z) for z in self.mol])\\n\",\n    \"\\n\",\n    \"    @property\\n\",\n    \"    def feature_labels(self):\\n\",\n    \"        return self.target\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {\n    \"scrolled\": true\n   },\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>c1ccccc1</th>\\n\",\n       \"      <th>C=O</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>6</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>7</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>8</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>9</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>10</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>11</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>12</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>13</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>14</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>15</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>16</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>17</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>18</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>19</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"    c1ccccc1    C=O\\n\",\n       \"0      False   True\\n\",\n       \"1      False   True\\n\",\n       \"2      False   True\\n\",\n       \"3      False  False\\n\",\n       \"4      False   True\\n\",\n       \"5       True  False\\n\",\n       \"6      False  False\\n\",\n       \"7      False   True\\n\",\n       \"8      False  False\\n\",\n       \"9       True   True\\n\",\n       \"10     False  False\\n\",\n       \"11      True  False\\n\",\n       \"12      True  False\\n\",\n       \"13     False   True\\n\",\n       \"14     False   True\\n\",\n       \"15     False   True\\n\",\n       \"16     False   True\\n\",\n       \"17     False   True\\n\",\n       \"18      True   True\\n\",\n       \"19      True   True\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# testing if it works\\n\",\n    \"\\n\",\n    \"fea_frag = Frag_binary(target=['c1ccccc1','C=O'], on_errors='nan', return_type='df')\\n\",\n    \"fea_frag.transform(smis)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# BaseDescriptor that combines the two featurizer we made\\n\",\n    \"\\n\",\n    \"from xenonpy.descriptor.base import BaseDescriptor\\n\",\n    \"\\n\",\n    \"class custom_binary(BaseDescriptor):\\n\",\n    \"    \\\"\\\"\\\"\\n\",\n    \"    Collect custom made binary descriptors of organic molecules.\\n\",\n    \"    \\\"\\\"\\\"\\n\",\n    \"\\n\",\n    \"    def __init__(self,\\n\",\n    \"                 n_jobs=-1,\\n\",\n    \"                 *,\\n\",\n    \"                 featurizers='all',\\n\",\n    \"                 on_errors='raise',\\n\",\n    \"                 return_type='any'):\\n\",\n    \"        \\\"\\\"\\\"\\n\",\n    \"        Parameters\\n\",\n    \"        ----------\\n\",\n    \"        n_jobs: int\\n\",\n    \"            The number of jobs to run in parallel for both fit and predict.\\n\",\n    \"            Can be -1 or # of cpus. Set -1 to use all cpu cores (default).\\n\",\n    \"        input_type: string\\n\",\n    \"            Set the specific type of transform input.\\n\",\n    \"            Set to ``mol`` (default) to ``rdkit.Chem.rdchem.Mol`` objects as input.\\n\",\n    \"            When set to ``smlies``, ``transform`` method can use a SMILES list as input.\\n\",\n    \"            Set to ``any`` to use both.\\n\",\n    \"            If input is SMILES, ``Chem.MolFromSmiles`` function will be used inside.\\n\",\n    \"            for ``None`` returns, a ``ValueError`` exception will be raised.\\n\",\n    \"        on_errors: string\\n\",\n    \"            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\\n\",\n    \"            When 'nan', return a column with ``np.nan``.\\n\",\n    \"            The length of column corresponding to the number of feature labs.\\n\",\n    \"            When 'keep', return a column with exception objects.\\n\",\n    \"            The default is 'raise' which will raise up the exception.\\n\",\n    \"        \\\"\\\"\\\"\\n\",\n    \"\\n\",\n    \"        super().__init__(featurizers=featurizers)\\n\",\n    \"        self.n_jobs = n_jobs\\n\",\n    \"\\n\",\n    \"        self.mol = MolWeight_binary(target=(-np.inf,200), on_errors=on_errors, return_type=return_type)\\n\",\n    \"        self.mol = Frag_binary(target=['c1ccccc1','C=O'], on_errors=on_errors, return_type=return_type)\\n\",\n    \"        \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>MolW_bin</th>\\n\",\n       \"      <th>c1ccccc1</th>\\n\",\n       \"      <th>C=O</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>6</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>7</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>8</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>9</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>10</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>11</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>12</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>13</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>14</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>15</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>16</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>17</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>False</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>18</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>19</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"      <td>True</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"    MolW_bin  c1ccccc1    C=O\\n\",\n       \"0      False     False   True\\n\",\n       \"1      False     False   True\\n\",\n       \"2       True     False   True\\n\",\n       \"3       True     False  False\\n\",\n       \"4       True     False   True\\n\",\n       \"5      False      True  False\\n\",\n       \"6       True     False  False\\n\",\n       \"7       True     False   True\\n\",\n       \"8      False     False  False\\n\",\n       \"9      False      True   True\\n\",\n       \"10      True     False  False\\n\",\n       \"11      True      True  False\\n\",\n       \"12      True      True  False\\n\",\n       \"13     False     False   True\\n\",\n       \"14     False     False   True\\n\",\n       \"15     False     False   True\\n\",\n       \"16      True     False   True\\n\",\n       \"17      True     False   True\\n\",\n       \"18      True      True   True\\n\",\n       \"19      True      True   True\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# testing if it works\\n\",\n    \"\\n\",\n    \"fea_custom = custom_binary(on_errors='nan', return_type='df')\\n\",\n    \"fea_custom.transform(smis)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Second, we will make a BaseLogLikelihood to handle the binary featurizers.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from typing import Union\\n\",\n    \"import numpy as np\\n\",\n    \"import pandas as pd\\n\",\n    \"from xenonpy.descriptor.base import BaseDescriptor, BaseFeaturizer\\n\",\n    \"from xenonpy.inverse.base import BaseLogLikelihood\\n\",\n    \"\\n\",\n    \"class BinaryLogLikelihood(BaseLogLikelihood):\\n\",\n    \"    def __init__(self, descriptor: Union[BaseFeaturizer, BaseDescriptor], *, log_0=-1000.0):\\n\",\n    \"        \\\"\\\"\\\"\\n\",\n    \"        Binary loglikelihood.\\n\",\n    \"        Parameters\\n\",\n    \"        ----------\\n\",\n    \"        descriptor: BaseFeaturizer or BaseDescriptor\\n\",\n    \"            assume the descriptor always return 1 or 0 (True or False), where NaN is considered 0.\\n\",\n    \"        log_0: float\\n\",\n    \"            value to take for log_0 probability instead of -inf.\\n\",\n    \"        \\\"\\\"\\\"\\n\",\n    \"        self._log_0 = log_0\\n\",\n    \"        \\n\",\n    \"        if not isinstance(descriptor, (BaseFeaturizer, BaseDescriptor)):\\n\",\n    \"            raise TypeError('<descriptor> must be a subclass of <BaseFeaturizer> or <BaseDescriptor>')\\n\",\n    \"        self._descriptor = descriptor\\n\",\n    \"        self._descriptor.on_errors = 'nan'\\n\",\n    \"\\n\",\n    \"    def predict(self, x, **kwargs):\\n\",\n    \"        return self._descriptor.transform(x, return_type='df')\\n\",\n    \"\\n\",\n    \"    # log_likelihood returns a dataframe of log-likelihood values of each property & sample\\n\",\n    \"    def log_likelihood(self, x, *, log_0=None):\\n\",\n    \"\\n\",\n    \"        if log_0 is None:\\n\",\n    \"            log_0 = self._log_0\\n\",\n    \"            \\n\",\n    \"        ll = self.predict(x)\\n\",\n    \"        check = ll == 1\\n\",\n    \"        ll[~check] = log_0\\n\",\n    \"        ll[check] = 0\\n\",\n    \"\\n\",\n    \"        return ll\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>MolW_bin</th>\\n\",\n       \"      <th>c1ccccc1</th>\\n\",\n       \"      <th>C=O</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>6</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>7</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>8</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>9</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>10</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>11</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>12</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>13</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>14</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>15</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>16</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>17</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>-1000.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>18</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>19</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"      <td>0.0</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"    MolW_bin  c1ccccc1     C=O\\n\",\n       \"0    -1000.0   -1000.0     0.0\\n\",\n       \"1    -1000.0   -1000.0     0.0\\n\",\n       \"2        0.0   -1000.0     0.0\\n\",\n       \"3        0.0   -1000.0 -1000.0\\n\",\n       \"4        0.0   -1000.0     0.0\\n\",\n       \"5    -1000.0       0.0 -1000.0\\n\",\n       \"6        0.0   -1000.0 -1000.0\\n\",\n       \"7        0.0   -1000.0     0.0\\n\",\n       \"8    -1000.0   -1000.0 -1000.0\\n\",\n       \"9    -1000.0       0.0     0.0\\n\",\n       \"10       0.0   -1000.0 -1000.0\\n\",\n       \"11       0.0       0.0 -1000.0\\n\",\n       \"12       0.0       0.0 -1000.0\\n\",\n       \"13   -1000.0   -1000.0     0.0\\n\",\n       \"14   -1000.0   -1000.0     0.0\\n\",\n       \"15   -1000.0   -1000.0     0.0\\n\",\n       \"16       0.0   -1000.0     0.0\\n\",\n       \"17       0.0   -1000.0     0.0\\n\",\n       \"18       0.0       0.0     0.0\\n\",\n       \"19       0.0       0.0     0.0\"\n      ]\n     },\n     \"execution_count\": 10,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# testing if it works\\n\",\n    \"\\n\",\n    \"prd_mdl = BinaryLogLikelihood(descriptor=fea_custom)\\n\",\n    \"prd_mdl(smis)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"Now, we have succeeded to make a log-likelihood class that will return 0 when desired conditions are met (controlled by the featurizers) and -1000.0 otherwise. These are the molecules that met our conditions.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"['C1=CC(=C(C(=C1)O)O)C(=O)O', 'C1=CC(=C(C(=C1)O)O)CCC(=O)O']\"\n      ]\n     },\n     \"execution_count\": 15,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"tmp = prd_mdl(smis).sum(axis=1) == 0\\n\",\n    \"[x for i, x in enumerate(smis) if tmp[i]]\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"xepy37_test\",\n   \"language\": \"python\",\n   \"name\": \"xepy37_test\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.4\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 2\n}\n"
  },
  {
    "path": "xenonpy/contrib/sample_codes/Fragment_Ngram/Fragment_Ngram.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"## Fragment NGram  \\n\",\n    \"2019.10.21  \\n\",\n    \"yoh Noguchi (edited by Stephen Wu on 2019.10.24)\\n\",\n    \"\\n\",\n    \"__Do not use too many data to begin with!!!__\\n\",\n    \"\\n\",\n    \"Goal of this script: Create new molecules by modifying substructures in a list of initial molecules based on a pre-trained fragment NGram generator.\\n\",\n    \"\\n\",\n    \"Steps:\\n\",\n    \"1. Prepare a list of initial molecules (in SMILES format)\\n\",\n    \"2. Fragmentation using RECAP in RDKit\\n\",\n    \"3. Keep bigger part as base structures, and extract only the smaller parts\\n\",\n    \"4. Modify the extracted small fragments using a pre-trained NGram\\n\",\n    \"5. Exhaustive combination of all new small fragments generated above with the base structures\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 1,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.descriptor import Fingerprints\\n\",\n    \"import matplotlib.pyplot as plt\\n\",\n    \"from xenonpy.inverse.iqspr import GaussianLogLikelihood\\n\",\n    \"from xenonpy.inverse.iqspr import NGram\\n\",\n    \"from xenonpy.inverse.iqspr import IQSPR\\n\",\n    \"import csv\\n\",\n    \"import math\\n\",\n    \"import numpy as np\\n\",\n    \"import pandas as pd\\n\",\n    \"import pickle as pk\\n\",\n    \"from rdkit import Chem, DataStructs\\n\",\n    \"from rdkit.Chem import Draw, Recap\\n\",\n    \"from rdkit.Chem.rdMolDescriptors import GetMorganFingerprint\\n\",\n    \"import os\\n\",\n    \"from xenonpy.descriptor import FrozenFeaturizer\\n\",\n    \"from xenonpy.descriptor.base import BaseFeaturizer\\n\",\n    \"from xenonpy.descriptor.base import BaseDescriptor\\n\",\n    \"from xenonpy.descriptor import RDKitFP, MACCS, ECFP, AtomPairFP, TopologicalTorsionFP, FCFP\\n\",\n    \"from bayes_opt import BayesianOptimization\\n\",\n    \"from rdkit.Chem import BRICS\\n\",\n    \"from collections import Counter\\n\",\n    \"from scipy.special import comb\\n\",\n    \"from joblib import Parallel, delayed\\n\",\n    \"from tqdm import tqdm\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### User parameters\\n\",\n    \"- `CSV_PATH`: directory of csv file to be imported\\n\",\n    \"- `NGRAM_PATH`: directory of saved NGram model\\n\",\n    \"- `FRAGMENT_LENGTH`: max length of SMILES to be considered a small fragment\\n\",\n    \"- `BASE_LENGTH`: max length of SMILES to be considered a base structure\\n\",\n    \"- `CREATED_FRAGMENTS_NUMBER`: number of modified fragments per each extracted small fragment\\n\",\n    \"※ `len(smis_Fragment)` * `CREATED_FRAGMENTS_NUMBER` = total of number of new fragments\\n\",\n    \"- `OUTPUT_FILENAME`: file name of output csv\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"CSV_PATH = 'XXXXX.csv'\\n\",\n    \"NGRAM_PATH = 'ngram_reorder_12_O20_peter.obj'\\n\",\n    \"FRAGMENT_LENGTH = 30\\n\",\n    \"BASE_LENGTH = 50\\n\",\n    \"CREATED_FRAGMENTS_NUMBER = 5\\n\",\n    \"OUTPUT_FILENAME = 'test.csv'\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Read in data\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"data = pd.read_csv(CSV_PATH).reset_index(drop=True)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Verify convertability of SMILES to RDKit MOL\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"check = []\\n\",\n    \"for i, smiles in enumerate(data['SMILES']):\\n\",\n    \"    mol = Chem.MolFromSmiles(smiles)\\n\",\n    \"    if mol is None:\\n\",\n    \"        check.append(False)\\n\",\n    \"    if mol is not None:\\n\",\n    \"        if '.' in smiles:\\n\",\n    \"            check.append(False)\\n\",\n    \"        else:\\n\",\n    \"            check.append(True)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### List of SMILES\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"smiles_list = list(data['SMILES'][check].unique())\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Fragmentation（RECAP）\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"frag_list = []\\n\",\n    \"for i in range(len(smiles_list)):\\n\",\n    \"    mol_fu = (Chem.MolFromSmiles(smiles_list[i]))\\n\",\n    \"    decomp = Chem.Recap.RecapDecompose(mol_fu)\\n\",\n    \"    first_gen = [node.mol for node in decomp.children.values()]\\n\",\n    \"    for j in range(len(first_gen)):\\n\",\n    \"        smiles = Chem.MolToSmiles(first_gen[j])\\n\",\n    \"        frag_list.append(smiles)\\n\",\n    \"        \\n\",\n    \"frag_list = list(set(frag_list))    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Read in NGram model\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 17,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"## Ngram model  loding for Fragments\\n\",\n    \"with open(NGRAM_PATH, 'rb') as f:\\n\",\n    \"    n_gram = pk.load(f)\\n\",\n    \"\\n\",\n    \"setattr(n_gram,'min_len',2)\\n\",\n    \"n_gram.sample_order = (1, 20)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Categorize fragments\\n\",\n    \"- `smis_Fragment`: small fragments\\n\",\n    \"- `smis_Base`: base structures\\n\",\n    \"- `smis_Large`: big structures to be filtered out\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"smis_Fragment = []\\n\",\n    \"smis_Base = []\\n\",\n    \"smis_Large = []\\n\",\n    \"for smi in frag_list:\\n\",\n    \"    if len(smi) < FRAGMENT_LENGTH:\\n\",\n    \"        smis_Fragment.append(smi)\\n\",\n    \"    elif len(smi) < BASE_LENGTH:\\n\",\n    \"        smis_Base.append(smi)\\n\",\n    \"    else:\\n\",\n    \"        smis_Large.append(smi)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 【Function】combining fragment with base structure\\n\",\n    \"__\\\\*A B\\\\* -> BA__\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def combi_smiles(smis_frag, smis_base):\\n\",\n    \"    smis_frag = smis_frag\\n\",\n    \"    smis_base = smis_base\\n\",\n    \"\\n\",\n    \"    # prepare NGram object for use of ext. SMILES\\n\",\n    \"    from xenonpy.inverse.iqspr import NGram\\n\",\n    \"    ngram = NGram()\\n\",\n    \"\\n\",\n    \"    # check position of '*'\\n\",\n    \"    mols_base = Chem.MolFromSmiles(smis_base)\\n\",\n    \"    idx_base = [i for i in range(mols_base.GetNumAtoms()) if mols_base.GetAtomWithIdx(i).GetSymbol() == '*']\\n\",\n    \"\\n\",\n    \"    # rearrange base SMILES to avoid 1st char = '*'\\n\",\n    \"    if idx_base[0] == 0:\\n\",\n    \"        smis_base_head = Chem.MolToSmiles(mols_base,rootedAtAtom=1)\\n\",\n    \"    else:\\n\",\n    \"        smis_base_head = Chem.MolToSmiles(mols_base,rootedAtAtom=0)\\n\",\n    \"\\n\",\n    \"    # converge base to ext. SMILES and pick insertion location\\n\",\n    \"    esmi_base = ngram.smi2esmi(smis_base_head)\\n\",\n    \"    esmi_base = esmi_base[:-1]\\n\",\n    \"    idx_base = esmi_base.index[esmi_base['esmi'] == '*'].tolist()\\n\",\n    \"\\n\",\n    \"    # rearrange fragment to have 1st char = '*' and convert to ext. SMILES\\n\",\n    \"    mols_frag = Chem.MolFromSmiles(smis_frag)\\n\",\n    \"    idx_frag = [i for i in range(mols_frag.GetNumAtoms()) if mols_frag.GetAtomWithIdx(i).GetSymbol() == '*']\\n\",\n    \"    smis_frag_head = Chem.MolToSmiles(mols_frag,rootedAtAtom=idx_frag[0])\\n\",\n    \"    esmi_frag = ngram.smi2esmi(smis_frag_head)\\n\",\n    \"\\n\",\n    \"    # remove leading '*' and last '!'\\n\",\n    \"    esmi_frag = esmi_frag[1:-1]\\n\",\n    \"\\n\",\n    \"    # check open rings of base SMILES\\n\",\n    \"    nRing_base = esmi_base['n_ring'].loc[idx_base[0]]\\n\",\n    \"\\n\",\n    \"    # re-number rings in fragment SMILES\\n\",\n    \"    esmi_frag['n_ring'] = esmi_frag['n_ring'] + nRing_base\\n\",\n    \"\\n\",\n    \"    # delete '*' at the insertion location\\n\",\n    \"    esmi_base = esmi_base.drop(idx_base[0]).reset_index(drop=True)\\n\",\n    \"\\n\",\n    \"    # combine base with the fragment\\n\",\n    \"    ext_smi = pd.concat([esmi_base.iloc[:idx_base[0]], esmi_frag, esmi_base.iloc[idx_base[0]:]]).reset_index(drop=True)\\n\",\n    \"    new_pd_row = {'esmi': '!', 'n_br': 0, 'n_ring': 0, 'substr': ['!']}\\n\",\n    \"    ext_smi.append(new_pd_row, ignore_index=True)\\n\",\n    \"\\n\",\n    \"    fin_smi = ngram.esmi2smi(ext_smi)\\n\",\n    \"    mol_fin = Chem.MolFromSmiles(fin_smi)\\n\",\n    \"    #return mol_fin\\n\",\n    \"    return fin_smi\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 【Function】loop `combi_smiles` over all the base structures and list of fragments\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def loop_frag(base_list, frag_list):\\n\",\n    \"    comb_smi_list = []\\n\",\n    \"    for smi in tqdm(base_list):\\n\",\n    \"        results_list = Parallel(n_jobs=-1)([delayed(combi_smiles)(smi,s) for s in frag_list])\\n\",\n    \"        comb_smi_list.extend(results_list)\\n\",\n    \"    return comb_smi_list\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### 【Function】Generating new fragments based on an initial fragment using pre-trained NGram\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def create_Fragments(smi, N_frag, n_gram, max_iter = 100):\\n\",\n    \"    f_list = []\\n\",\n    \"    len_smi = len(smi)\\n\",\n    \"    num_min = int(len_smi/10)\\n\",\n    \"    num_max = (len_smi - 1)\\n\",\n    \"    n_gram.set_params(del_range=[num_min,num_max],max_len=1500, reorder_prob=0)\\n\",\n    \"    \\n\",\n    \"    for _ in range(max_iter):\\n\",\n    \"        smis_Ngram = n_gram.proposal([smi for _ in range(N_frag-len(f_list))])\\n\",\n    \"        f_list += [x for x in list(set(smis_Ngram)) if x.count('*') == 1]\\n\",\n    \"        if len(f_list) == N_frag:\\n\",\n    \"            break\\n\",\n    \"    \\n\",\n    \"    return f_list\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Generate new fragments\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 12,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"Frangments_list = []\\n\",\n    \"escape_num = 0\\n\",\n    \"#smi_list.append(smis_Fragment[0])\\n\",\n    \"results_list = Parallel(n_jobs=-1)([delayed(create_Fragments)(s, CREATED_FRAGMENTS_NUMBER, n_gram) for s in smis_Fragment])\\n\",\n    \"\\n\",\n    \"for res in results_list:\\n\",\n    \"    Frangments_list.extend(res) \\n\",\n    \"#Frangments_list = list(set(Frangments_list))\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Combine list of fragments with list of base structures\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 13,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"100%|██████████| 5/5 [00:03<00:00,  1.34it/s]\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"res = loop_frag(smis_Base, Frangments_list)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Output csv file\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"s_result = pd.Series(res, name='SMILES')\\n\",\n    \"s_result.to_csv(OUTPUT_FILENAME, index=False, header='SMILES')\"\n   ]\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"Python 3\",\n   \"language\": \"python\",\n   \"name\": \"python3\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.6.7\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 2\n}\n"
  },
  {
    "path": "xenonpy/contrib/sample_codes/README.md",
    "content": "# XenonPy contrib/sample_codes\n\nAny code in this directory is not officially supported and may change or be removed at any time without notice.\n\nThe contrib/sample_codes directory contains source code directories from contributors that may not be revised by the XenonPy developers.\nIt is meant to share different examples of XenonPy usage for different applications.\nUser with a similar problem setup can reference these codes and use them as a starting point to develop new codes.\n\nWhen sharing sample codes, please stick to the following rules:\n1. Create a new directory in `contrib/sample_codes`.\n2. Either provide a `README.md` under the root of the project directory, e.g  `contrib/my_project/README.md`, \nor include some headline information in the beginning of the Python file/jupyter notebook.\n3. Include a brief explanation of the purpose of the code. (Sharing contact info is recommended in case of any enquiry from other users)\n"
  },
  {
    "path": "xenonpy/contrib/sample_codes/Random_NN_structure/randNN_structures.ipynb",
    "content": "{\n \"cells\": [\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"# Generating random NN models with different baseline structures\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"2019.11.1\\n\",\n    \"Stephen Wu\\n\",\n    \"\\n\",\n    \"Goal of this script: \\n\",\n    \"sample codes of generating random neural network models based on a few different baseline structures other than the basic ones shown in the XenonPy official tutorial.\\n\",\n    \"    1. fixing the range of number of neurons in the first and last hidden layer with linear reduction of the range from the first to the last layer.\\n\",\n    \"    2. fixing the range of number of neurons in the first and last hidden layer with log reduction of the range from the first to the last layer.\\n\",\n    \"    3. randomly picking a subset of descriptors from the full descriptors as input for each neural network\\n\",\n    \"    \\n\",\n    \"Data from Pubchem (a subset selected by Ikebata) is used as an example.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Preparation\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 2,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"import pandas as pd\\n\",\n    \"import numpy as np\\n\",\n    \"import pickle as pk\\n\",\n    \"\\n\",\n    \"# user-friendly print\\n\",\n    \"from IPython.core.interactiveshell import InteractiveShell\\n\",\n    \"InteractiveShell.ast_node_interactivity = \\\"all\\\"\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### Load files\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"You can download the in-house data at https://github.com/yoshida-lab/XenonPy/releases/download/v0.4.1/iQSPR_sample_data.csv\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 3,\n   \"metadata\": {\n    \"scrolled\": true\n   },\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Index(['Unnamed: 0', 'SMILES', 'E', 'HOMO-LUMO gap'], dtype='object')\\n\",\n      \"(16674, 4)\\n\"\n     ]\n    },\n    {\n     \"data\": {\n      \"text/html\": [\n       \"<div>\\n\",\n       \"<style scoped>\\n\",\n       \"    .dataframe tbody tr th:only-of-type {\\n\",\n       \"        vertical-align: middle;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe tbody tr th {\\n\",\n       \"        vertical-align: top;\\n\",\n       \"    }\\n\",\n       \"\\n\",\n       \"    .dataframe thead th {\\n\",\n       \"        text-align: right;\\n\",\n       \"    }\\n\",\n       \"</style>\\n\",\n       \"<table border=\\\"1\\\" class=\\\"dataframe\\\">\\n\",\n       \"  <thead>\\n\",\n       \"    <tr style=\\\"text-align: right;\\\">\\n\",\n       \"      <th></th>\\n\",\n       \"      <th>Unnamed: 0</th>\\n\",\n       \"      <th>SMILES</th>\\n\",\n       \"      <th>E</th>\\n\",\n       \"      <th>HOMO-LUMO gap</th>\\n\",\n       \"    </tr>\\n\",\n       \"  </thead>\\n\",\n       \"  <tbody>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>0</td>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>CC(=O)OC(CC(=O)[O-])C[N+](C)(C)C</td>\\n\",\n       \"      <td>177.577</td>\\n\",\n       \"      <td>4.352512</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>1</td>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>CC(=O)OC(CC(=O)O)C[N+](C)(C)C</td>\\n\",\n       \"      <td>185.735</td>\\n\",\n       \"      <td>7.513497</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>2</td>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>C1=CC(C(C(=C1)C(=O)O)O)O</td>\\n\",\n       \"      <td>98.605</td>\\n\",\n       \"      <td>4.581348</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>3</td>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>CC(CN)O</td>\\n\",\n       \"      <td>83.445</td>\\n\",\n       \"      <td>8.034841</td>\\n\",\n       \"    </tr>\\n\",\n       \"    <tr>\\n\",\n       \"      <td>4</td>\\n\",\n       \"      <td>5</td>\\n\",\n       \"      <td>C(C(=O)COP(=O)(O)O)N</td>\\n\",\n       \"      <td>90.877</td>\\n\",\n       \"      <td>5.741310</td>\\n\",\n       \"    </tr>\\n\",\n       \"  </tbody>\\n\",\n       \"</table>\\n\",\n       \"</div>\"\n      ],\n      \"text/plain\": [\n       \"   Unnamed: 0                            SMILES        E  HOMO-LUMO gap\\n\",\n       \"0           1  CC(=O)OC(CC(=O)[O-])C[N+](C)(C)C  177.577       4.352512\\n\",\n       \"1           2     CC(=O)OC(CC(=O)O)C[N+](C)(C)C  185.735       7.513497\\n\",\n       \"2           3          C1=CC(C(C(=C1)C(=O)O)O)O   98.605       4.581348\\n\",\n       \"3           4                           CC(CN)O   83.445       8.034841\\n\",\n       \"4           5              C(C(=O)COP(=O)(O)O)N   90.877       5.741310\"\n      ]\n     },\n     \"execution_count\": 3,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# load QM9 data from csv file\\n\",\n    \"data = pd.read_csv('./iQSPR_sample_data.csv')\\n\",\n    \"\\n\",\n    \"# take a look at the data\\n\",\n    \"print(data.columns)\\n\",\n    \"print(data.shape)\\n\",\n    \"data.head()\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### Fingerprints\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 4,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from xenonpy.descriptor import Fingerprints\\n\",\n    \"\\n\",\n    \"FPs_ECFP_MACCS = Fingerprints(featurizers=['ECFP','MACCS'], input_type='smiles', on_errors='nan')\\n\",\n    \"FPs_All = Fingerprints(featurizers=['RDKitFP','AtomPairFP','TopologicalTorsionFP','ECFP','FCFP','MACCS'], input_type='smiles', on_errors='nan')\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"### Train DNN models\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### 1. fixing the range of number of neurons in the first and last hidden layer with linear reduction of the range from the first to the last layer.\\n\",\n    \"##### 2. fixing the range of number of neurons in the first and last hidden layer with log reduction of the range from the first to the last layer.\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"roughly takes 1min\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 9.18 s, sys: 764 ms, total: 9.94 s\\n\",\n      \"Wall time: 16.5 s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# pick a property as output\\n\",\n    \"prop = data['HOMO-LUMO gap'].to_frame()\\n\",\n    \"# pre-calculate all descriptors\\n\",\n    \"desc = FPs_ECFP_MACCS.transform(data['SMILES'])\\n\",\n    \"# remove NaN row\\n\",\n    \"prop = prop[~desc.isnull().any(axis=1)]\\n\",\n    \"desc = desc[~desc.isnull().any(axis=1)]\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"prepare a function to generate random number of neurons uniformly from a given range at each hidden layer for a given total number of layer, for which the max and min values of the ranges are linearly decaying with a pair of fixed max and min values at the first and the last hidden layer.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# the fixed max and min values at the first and the last hidden layer \\n\",\n    \"# are determined empirically based on the length of the descriptor\\n\",\n    \"\\n\",\n    \"def neuron_vector_lin(nL):\\n\",\n    \"    max_vec = np.linspace(1500,100,nL)\\n\",\n    \"    min_vec = np.linspace(1000,20,nL)\\n\",\n    \"    return sorted([np.random.randint(min_vec[i], max_vec[i]) for i in range(nL)], reverse=True)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1201, 933, 564, 274, 89]\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1113, 939, 682, 291, 70]\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1121, 1008, 590, 448, 30]\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1104, 1041, 792, 436, 66]\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1235, 974, 793, 298, 65]\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1433, 885, 534, 424, 89]\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1319, 787, 595, 400, 32]\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1476, 846, 799, 316, 56]\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1019, 1015, 628, 397, 69]\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1353, 871, 513, 307, 43]\"\n      ]\n     },\n     \"execution_count\": 6,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# test the function\\n\",\n    \"for _ in range(10):\\n\",\n    \"    neuron_vector_lin(5)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"prepare a function to generate random number of neurons uniformly from a given range at each hidden layer for a given total number of layer, for which the max and min values of the ranges are decaying in log-scale with a pair of fixed max and min values at the first and the last hidden layer.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# the fixed max and min values at the first and the last hidden layer \\n\",\n    \"# are determined empirically based on the length of the descriptor\\n\",\n    \"\\n\",\n    \"def neuron_vector_log(nL):\\n\",\n    \"    log_base = 2\\n\",\n    \"    max_vec = np.round(np.logspace(np.log2(100),np.log2(1500),nL,base=log_base))\\n\",\n    \"    min_vec = np.round(np.logspace(np.log2(20),np.log2(1000),nL,base=log_base))\\n\",\n    \"    return sorted([np.random.randint(min_vec[i], max_vec[i]) for i in range(nL)], reverse=True)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1454, 723, 255, 101, 41]\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1142, 617, 257, 80, 80]\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1235, 513, 299, 160, 85]\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1397, 540, 184, 183, 74]\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1188, 410, 193, 127, 81]\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1109, 669, 358, 115, 42]\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1475, 467, 325, 119, 24]\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1018, 565, 232, 139, 62]\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1419, 524, 263, 85, 61]\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[1180, 731, 212, 151, 79]\"\n      ]\n     },\n     \"execution_count\": 8,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# test the function\\n\",\n    \"for _ in range(10):\\n\",\n    \"    neuron_vector_log(5)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"prepare a generator with a selected \\\"neuron_vector\\\" function (we use LeakyReLu in this example)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"from torch.nn import LeakyReLU\\n\",\n    \"from xenonpy.utils import ParameterGenerator\\n\",\n    \"\\n\",\n    \"generator = ParameterGenerator(\\n\",\n    \"    in_features=desc.shape[1],\\n\",\n    \"    out_features=1,\\n\",\n    \"    h_neurons=dict(\\n\",\n    \"        data=neuron_vector_lin, \\n\",\n    \"        repeat=(3, 4, 5)\\n\",\n    \"    ),\\n\",\n    \"    h_activation_funcs=(LeakyReLU(),)\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"{'in_features': 2215, 'out_features': 1, 'h_activation_funcs': LeakyReLU(negative_slope=0.01), 'h_neurons': (1106, 944, 457, 57)}\\n\",\n      \"{'in_features': 2215, 'out_features': 1, 'h_activation_funcs': LeakyReLU(negative_slope=0.01), 'h_neurons': (1092, 1016, 483, 91)}\\n\",\n      \"{'in_features': 2215, 'out_features': 1, 'h_activation_funcs': LeakyReLU(negative_slope=0.01), 'h_neurons': (1365, 739, 401, 42)}\\n\",\n      \"{'in_features': 2215, 'out_features': 1, 'h_activation_funcs': LeakyReLU(negative_slope=0.01), 'h_neurons': (1243, 846, 616, 439, 73)}\\n\",\n      \"{'in_features': 2215, 'out_features': 1, 'h_activation_funcs': LeakyReLU(negative_slope=0.01), 'h_neurons': (1433, 1071, 611, 287, 32)}\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# test the function\\n\",\n    \"\\n\",\n    \"for parameters in generator(num=5):\\n\",\n    \"    print(parameters)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"prepare a function to automatically generate names for each model\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 11,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def make_name(model):\\n\",\n    \"    name = ['HLgap']\\n\",\n    \"    for n, m in model.named_children():\\n\",\n    \"        if 'layer_' in n:\\n\",\n    \"            name.append(str(m.linear.in_features))\\n\",\n    \"        else:\\n\",\n    \"            name.append(str(m.in_features))\\n\",\n    \"            name.append(str(m.out_features))\\n\",\n    \"    return '-'.join(name)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"HLgap-2215-1272-917-651-278-77-1\\n\",\n      \"HLgap-2215-1026-902-507-49-1\\n\",\n      \"HLgap-2215-1320-825-759-305-55-1\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"# test the function\\n\",\n    \"from xenonpy.model import SequentialLinear, LinearLayer\\n\",\n    \"\\n\",\n    \"for paras, model in generator(num=3, factory=SequentialLinear):\\n\",\n    \"    print(make_name(model))\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"training models\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# import libraries\\n\",\n    \"import torch\\n\",\n    \"from torch.utils.data import DataLoader\\n\",\n    \"\\n\",\n    \"from xenonpy.datatools import preset, Splitter\\n\",\n    \"from xenonpy.descriptor import Compositions\\n\",\n    \"\\n\",\n    \"from xenonpy.model import SequentialLinear, LinearLayer\\n\",\n    \"from xenonpy.model.training import Trainer, SGD, MSELoss, Adam, ReduceLROnPlateau, ExponentialLR, ClipValue\\n\",\n    \"from xenonpy.model.training.extension import Validator, TensorConverter, Persist\\n\",\n    \"from xenonpy.model.training.dataset import ArrayDataset\\n\",\n    \"from xenonpy.model.utils import regression_metrics\\n\",\n    \"\\n\",\n    \"from collections import OrderedDict\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# prepare a trainer\\n\",\n    \"trainer = Trainer(\\n\",\n    \"    optimizer=Adam(lr=0.01),\\n\",\n    \"    loss_func=MSELoss(),\\n\",\n    \"    cuda=False,\\n\",\n    \").extend(\\n\",\n    \"    TensorConverter(),\\n\",\n    \"    Validator(metrics_func=regression_metrics, early_stopping=50, trace_order=3, mae=0.0, pearsonr=1.0),\\n\",\n    \")\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   8%|▊         | 15/200 [02:03<25:27,  8.26s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 391\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  12%|█▎        | 25/200 [03:01<21:08,  7.25s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 664\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   4%|▍         | 8/200 [00:55<22:16,  6.96s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 197\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   5%|▌         | 10/200 [01:07<21:22,  6.75s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 262\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  10%|▉         | 19/200 [03:29<33:17, 11.04s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 508\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  12%|█▏        | 23/200 [03:15<25:05,  8.51s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 610\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   6%|▌         | 11/200 [01:43<29:32,  9.38s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 291\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   4%|▎         | 7/200 [00:54<25:13,  7.84s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 179\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  11%|█         | 22/200 [03:02<24:37,  8.30s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 588\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   6%|▋         | 13/200 [01:46<25:25,  8.16s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 337\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  13%|█▎        | 26/200 [04:11<28:04,  9.68s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 690\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  10%|▉         | 19/200 [02:13<21:14,  7.04s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 509\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   3%|▎         | 6/200 [01:09<37:24, 11.57s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 158\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   4%|▍         | 8/200 [01:01<24:24,  7.63s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 207\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   7%|▋         | 14/200 [02:02<27:08,  8.75s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 367\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   4%|▍         | 9/200 [01:31<32:11, 10.11s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 235\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   6%|▌         | 12/200 [02:07<33:23, 10.66s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 312\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  10%|█         | 21/200 [02:25<20:42,  6.94s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 554\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   9%|▉         | 18/200 [02:46<28:02,  9.24s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 472\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   9%|▉         | 18/200 [02:33<25:51,  8.53s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 478\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   4%|▍         | 9/200 [01:16<27:11,  8.54s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 239\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   8%|▊         | 15/200 [01:35<19:39,  6.38s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 395\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   8%|▊         | 17/200 [02:12<23:46,  7.80s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 450\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   4%|▍         | 9/200 [01:08<24:11,  7.60s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 240\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   5%|▌         | 10/200 [01:01<19:35,  6.19s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 265\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  11%|█         | 22/200 [03:12<26:01,  8.77s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 589\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   7%|▋         | 14/200 [01:42<22:43,  7.33s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 363\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   5%|▌         | 10/200 [01:07<21:17,  6.72s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 253\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   4%|▍         | 9/200 [01:09<24:41,  7.75s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 238\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  10%|█         | 21/200 [02:57<25:11,  8.45s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 558\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   4%|▍         | 8/200 [00:56<22:40,  7.08s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 195\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  10%|█         | 20/200 [02:31<22:47,  7.60s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 538\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  10%|█         | 20/200 [02:05<18:46,  6.26s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 534\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   6%|▌         | 11/200 [01:39<28:28,  9.04s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 293\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   8%|▊         | 16/200 [01:55<22:12,  7.24s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 427\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   8%|▊         | 17/200 [02:14<24:02,  7.88s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 454\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   4%|▍         | 8/200 [01:00<24:12,  7.56s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 215\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   6%|▋         | 13/200 [01:51<26:36,  8.54s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 346\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  12%|█▏        | 24/200 [03:23<24:53,  8.48s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 639\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   8%|▊         | 17/200 [02:01<21:49,  7.16s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 454\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   8%|▊         | 15/200 [02:00<24:44,  8.02s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 398\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   6%|▌         | 12/200 [01:52<29:16,  9.34s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 315\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   8%|▊         | 15/200 [02:11<27:02,  8.77s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 398\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  10%|█         | 21/200 [02:28<21:09,  7.09s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 562\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  10%|█         | 20/200 [02:48<25:18,  8.43s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 532\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:  10%|█         | 21/200 [03:10<27:02,  9.06s/it]\\n\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 562\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   6%|▌         | 11/200 [01:14<22:50,  7.25s/it]\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"summary = []\\n\",\n    \"save_folder = 'Test_HLgap_MACCSECFP'\\n\",\n    \"N_train = int(prop.shape[0]*0.8)\\n\",\n    \"train_batch_size = 512 # based on total number data\\n\",\n    \"test_batch_size = 1024 # based on total number data\\n\",\n    \"max_epochs = 200\\n\",\n    \"\\n\",\n    \"for paras, model in generator(num=100, factory=SequentialLinear):\\n\",\n    \"    sp = Splitter(prop.shape[0], test_size=prop.shape[0]-N_train)\\n\",\n    \"    x_train, x_val, y_train, y_val = sp.split(desc, prop)\\n\",\n    \"    \\n\",\n    \"    train_dataset = DataLoader(ArrayDataset(x_train, y_train), shuffle=True, batch_size=train_batch_size)\\n\",\n    \"    val_dataset = DataLoader(ArrayDataset(x_val, y_val), batch_size=test_batch_size)\\n\",\n    \"    \\n\",\n    \"    model_name = make_name(model)\\n\",\n    \"    persist = Persist(\\n\",\n    \"        f'{save_folder}/{model_name}', \\n\",\n    \"        # -^- required -^-\\n\",\n    \"        \\n\",\n    \"        # -v- optional -v-\\n\",\n    \"        increment=True, \\n\",\n    \"        sync_training_step=True,\\n\",\n    \"        model_class=SequentialLinear,\\n\",\n    \"        model_params=paras,\\n\",\n    \"        author='Someone',\\n\",\n    \"        email='someone@email.com',\\n\",\n    \"        dataset='Pubchem_ikebata',\\n\",\n    \"    )\\n\",\n    \"    _ = trainer.extend(persist)\\n\",\n    \"    trainer.reset(to=model)\\n\",\n    \"    \\n\",\n    \"    trainer.fit(training_dataset=train_dataset, validation_dataset=val_dataset, epochs=max_epochs)\\n\",\n    \"    persist(splitter=sp, data_indices=prop.index.tolist())  # <-- calling of this method only after the model training\\n\",\n    \"    \\n\",\n    \"    training_info = trainer.training_info\\n\",\n    \"    \\n\",\n    \"    summary.append(OrderedDict(\\n\",\n    \"        id=model_name,\\n\",\n    \"        mae=training_info['val_mae'].min(),\\n\",\n    \"        mse=training_info['val_mse'].min(),\\n\",\n    \"        r2=training_info['val_r2'].max(),\\n\",\n    \"        corr=training_info['val_pearsonr'].max(),\\n\",\n    \"        spearman_corr=training_info['val_spearmanr'].max(),\\n\",\n    \"    ))\\n\",\n    \"    \\n\",\n    \"# record the summary of the results\\n\",\n    \"summary = pd.DataFrame(summary)\\n\",\n    \"summary.to_pickle(f'{save_folder}/summary.pd.xz')\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"plot training results\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# prepare target and plotting folders, and load models\\n\",\n    \"import os\\n\",\n    \"from xenonpy.model.training import Checker\\n\",\n    \"\\n\",\n    \"target_folder = 'Test_HLgap_MACCSECFP'\\n\",\n    \"save_plots = 'Plots_' + target_folder\\n\",\n    \"\\n\",\n    \"if not os.path.exists(save_plots):\\n\",\n    \"    os.makedirs(save_plots)\\n\",\n    \"\\n\",\n    \"checkers = []\\n\",\n    \"model_list = []\\n\",\n    \"tmp_file = os.listdir(target_folder)\\n\",\n    \"for tmp in tmp_file:\\n\",\n    \"    if os.path.isdir(f'{target_folder}/{tmp}'):\\n\",\n    \"        model_list.append(tmp)\\n\",\n    \"        checkers.append(Checker(f'{target_folder}/{tmp}'))\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# prediction vs. observation plots (single test trial)\\n\",\n    \"import seaborn as sb\\n\",\n    \"\\n\",\n    \"def draw(y_true, y_pred, y_true_fit=None, y_pred_fit=None, *, prop_name, log_scale=False, file_dir=None, file_name=None):\\n\",\n    \"\\n\",\n    \"    mask = ~np.isnan(y_pred)\\n\",\n    \"    y_true = y_true[mask]\\n\",\n    \"    y_pred = y_pred[mask]\\n\",\n    \"        \\n\",\n    \"    data = pd.DataFrame(dict(Observation=y_true, Prediction=y_pred, dataset=['test'] * len(y_true)))\\n\",\n    \"    scores = metrics(data['Observation'], data['Prediction'])\\n\",\n    \"    \\n\",\n    \"    if y_true_fit is not None and y_pred_fit is not None:\\n\",\n    \"        mask = ~np.isnan(y_pred_fit)\\n\",\n    \"        y_true_fit = y_true_fit[mask]\\n\",\n    \"        y_pred_fit = y_pred_fit[mask]\\n\",\n    \"        train_ = pd.DataFrame(dict(Observation=y_true_fit, Prediction=y_pred_fit, dataset=['train'] * len(y_true_fit)))\\n\",\n    \"        data = pd.concat([train_, data])\\n\",\n    \"\\n\",\n    \"    if log_scale:\\n\",\n    \"        data = data.apply(lambda c: np.log(c.values) if c.dtype.type is not np.object_ else c, axis=0)\\n\",\n    \"#         test_ = test_.apply(lambda c: np.log(c.values) if c.dtype.type is not np.object_ else c, axis=0)\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"#     with sb.set(font_scale=2.5):\\n\",\n    \"    g = sb.lmplot(x=\\\"Prediction\\\", y=\\\"Observation\\\", hue=\\\"dataset\\\", ci=None,\\n\",\n    \"                  data=data, palette=\\\"Set1\\\", height=10, legend=False,  markers=[\\\".\\\", \\\"o\\\"],\\n\",\n    \"                  scatter_kws={'s': 25, 'alpha': 0.7}, hue_order=['train', 'test'])\\n\",\n    \"    \\n\",\n    \"    ax = plt.gca()\\n\",\n    \"    tmp = [data[\\\"Prediction\\\"].max(), data[\\\"Prediction\\\"].min(), data[\\\"Observation\\\"].max(), data[\\\"Observation\\\"].max()]\\n\",\n    \"    min_, max_ = np.min(tmp), np.max(tmp)\\n\",\n    \"    margin = (max_- min_) / 15\\n\",\n    \"    min_ = min_ - margin\\n\",\n    \"    max_ = max_ + margin\\n\",\n    \"    ax.set_xlim(min_, max_)\\n\",\n    \"    ax.set_ylim(min_, max_)\\n\",\n    \"    ax.set_xlabel(ax.get_xlabel(), fontsize='xx-large')\\n\",\n    \"    ax.set_ylabel(ax.get_ylabel(), fontsize='xx-large')\\n\",\n    \"    ax.tick_params(axis='both', which='major', labelsize='xx-large')\\n\",\n    \"    ax.plot((min_, max_), (min_, max_), ':', color='gray')\\n\",\n    \"    ax.set_title(prop_name, fontsize='xx-large')\\n\",\n    \"    if log_scale:\\n\",\n    \"        ax.set_title(prop_name + ' (log scale)', fontsize='xx-large')\\n\",\n    \"    ax.text(0.98, 0.03,\\n\",\n    \"            'MAE: %.5f\\\\nRMSE: %.5f\\\\nPearsonR: %.5f\\\\nSpearmanR: %.5f' % (scores['mae'], scores['rmse'], scores['pearsonr'], scores['spearmanr']),\\n\",\n    \"            transform=ax.transAxes, horizontalalignment='right', fontsize='xx-large')\\n\",\n    \"\\n\",\n    \"    ax.legend(loc='upper left', markerscale=2, fancybox=True, shadow=True, frameon=True, facecolor='w', fontsize=18)\\n\",\n    \"\\n\",\n    \"    plt.tight_layout()\\n\",\n    \"    if file_dir and file_name:\\n\",\n    \"        if log_scale:\\n\",\n    \"            plt.savefig(file_dir + '/' + file_name + '_log_scale.png', dpi=300, bbox_inches='tight')\\n\",\n    \"        else:\\n\",\n    \"            plt.savefig(file_dir + '/' + file_name + '.png', dip=300, bbox_inches='tight')\\n\",\n    \"    else:\\n\",\n    \"        print('Missing directory and/or file name information!')\\n\",\n    \"        \\n\",\n    \"# calculating basic statistics for predictions\\n\",\n    \"def metrics(y_true, y_pred, ignore_nan=True):\\n\",\n    \"    from sklearn.metrics import mean_absolute_error, r2_score, mean_squared_error\\n\",\n    \"    from scipy.stats import pearsonr, spearmanr\\n\",\n    \"    \\n\",\n    \"    if ignore_nan:\\n\",\n    \"        mask = ~np.isnan(y_pred)\\n\",\n    \"        y_true = y_true[mask]\\n\",\n    \"        y_pred = y_pred[mask]\\n\",\n    \"    \\n\",\n    \"    mae = mean_absolute_error(y_true, y_pred)\\n\",\n    \"    rmse = np.sqrt(mean_squared_error(y_true, y_pred))\\n\",\n    \"    r2 = r2_score(y_true, y_pred)\\n\",\n    \"    pr, p_val = pearsonr(y_true, y_pred)\\n\",\n    \"    sr, _ = spearmanr(y_true, y_pred)\\n\",\n    \"    return dict(\\n\",\n    \"        mae=mae,\\n\",\n    \"        rmse=rmse,\\n\",\n    \"        r2=r2,\\n\",\n    \"        pearsonr=pr,\\n\",\n    \"        spearmanr=sr,\\n\",\n    \"        p_value=p_val\\n\",\n    \"    )\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 9,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"ename\": \"RuntimeError\",\n     \"evalue\": \"size mismatch, m1: [1024 x 10407], m2: [567 x 502] at /Users/distiller/project/conda/conda-bld/pytorch_1556653464916/work/aten/src/TH/generic/THTensorMath.cpp:961\",\n     \"output_type\": \"error\",\n     \"traceback\": [\n      \"\\u001b[0;31m---------------------------------------------------------------------------\\u001b[0m\",\n      \"\\u001b[0;31mRuntimeError\\u001b[0m                              Traceback (most recent call last)\",\n      \"\\u001b[0;32m<ipython-input-9-0e7482345d9b>\\u001b[0m in \\u001b[0;36m<module>\\u001b[0;34m\\u001b[0m\\n\\u001b[1;32m     22\\u001b[0m     \\u001b[0mval_dataset\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mDataLoader\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mArrayDataset\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mx_val\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0my_val\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mbatch_size\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0mtest_batch_size\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m     23\\u001b[0m \\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0;32m---> 24\\u001b[0;31m     \\u001b[0my_pred\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0my_true\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mtrainer\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mpredict\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mdataset\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0mval_dataset\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mcheckpoint\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;34m'mae_1'\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0m\\u001b[1;32m     25\\u001b[0m     \\u001b[0my_fit_pred\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0my_fit_true\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mtrainer\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mpredict\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mdataset\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0mtrain_dataset\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mcheckpoint\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;34m'mae_1'\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m     26\\u001b[0m     \\u001b[0mdraw\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0my_true\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0my_pred\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0my_fit_true\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0my_fit_pred\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mprop_name\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;34m'HL gap'\\u001b[0m\\u001b[0;34m,\\u001b[0m\\u001b[0mfile_dir\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0msave_plots\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mfile_name\\u001b[0m\\u001b[0;34m=\\u001b[0m\\u001b[0;34m'P2O_'\\u001b[0m\\u001b[0;34m+\\u001b[0m\\u001b[0mmodel_list\\u001b[0m\\u001b[0;34m[\\u001b[0m\\u001b[0mi\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n      \"\\u001b[0;32m~/anaconda/envs/xepy37_test/lib/python3.7/site-packages/xenonpy/utils/useful_cls.py\\u001b[0m in \\u001b[0;36mfn_\\u001b[0;34m(self, *args, **kwargs)\\u001b[0m\\n\\u001b[1;32m    100\\u001b[0m                 \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m_timer\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mstart\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mfn\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m__name__\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    101\\u001b[0m                 \\u001b[0;32mtry\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0;32m--> 102\\u001b[0;31m                     \\u001b[0mrt\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mfn\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mself\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m*\\u001b[0m\\u001b[0margs\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m**\\u001b[0m\\u001b[0mkwargs\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0m\\u001b[1;32m    103\\u001b[0m                 \\u001b[0;32mfinally\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    104\\u001b[0m                     \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m_timer\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mstop\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mfn\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m__name__\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n      \"\\u001b[0;32m~/anaconda/envs/xepy37_test/lib/python3.7/site-packages/xenonpy/model/training/trainer.py\\u001b[0m in \\u001b[0;36mpredict\\u001b[0;34m(self, x_in, y_true, dataset, checkpoint, **model_params)\\u001b[0m\\n\\u001b[1;32m    581\\u001b[0m             \\u001b[0my_trues\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0;34m[\\u001b[0m\\u001b[0;34m]\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    582\\u001b[0m             \\u001b[0;32mfor\\u001b[0m \\u001b[0mx_in\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0my_true\\u001b[0m \\u001b[0;32min\\u001b[0m \\u001b[0mdataset\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0;32m--> 583\\u001b[0;31m                 \\u001b[0my_pred\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0my_true\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0m_predict\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mx_in\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0my_true\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0m\\u001b[1;32m    584\\u001b[0m                 \\u001b[0my_preds\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mappend\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0my_pred\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    585\\u001b[0m                 \\u001b[0my_trues\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mappend\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0my_true\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n      \"\\u001b[0;32m~/anaconda/envs/xepy37_test/lib/python3.7/site-packages/xenonpy/model/training/trainer.py\\u001b[0m in \\u001b[0;36m_predict\\u001b[0;34m(x_, y_)\\u001b[0m\\n\\u001b[1;32m    561\\u001b[0m                 \\u001b[0mmodel\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mdeepcopy\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m_model\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mto\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mdevice\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    562\\u001b[0m                 \\u001b[0mmodel\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mload_state_dict\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mcp\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mmodel_state\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0;32m--> 563\\u001b[0;31m                 \\u001b[0my_p_\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mmodel\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m*\\u001b[0m\\u001b[0mx_\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m**\\u001b[0m\\u001b[0mmodel_params\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0m\\u001b[1;32m    564\\u001b[0m             \\u001b[0;32melse\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    565\\u001b[0m                 \\u001b[0my_p_\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m_model\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m*\\u001b[0m\\u001b[0mx_\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m**\\u001b[0m\\u001b[0mmodel_params\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n      \"\\u001b[0;32m~/anaconda/envs/xepy37_test/lib/python3.7/site-packages/torch/nn/modules/module.py\\u001b[0m in \\u001b[0;36m__call__\\u001b[0;34m(self, *input, **kwargs)\\u001b[0m\\n\\u001b[1;32m    491\\u001b[0m             \\u001b[0mresult\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m_slow_forward\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m*\\u001b[0m\\u001b[0minput\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m**\\u001b[0m\\u001b[0mkwargs\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    492\\u001b[0m         \\u001b[0;32melse\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0;32m--> 493\\u001b[0;31m             \\u001b[0mresult\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mforward\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m*\\u001b[0m\\u001b[0minput\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m**\\u001b[0m\\u001b[0mkwargs\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0m\\u001b[1;32m    494\\u001b[0m         \\u001b[0;32mfor\\u001b[0m \\u001b[0mhook\\u001b[0m \\u001b[0;32min\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m_forward_hooks\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mvalues\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    495\\u001b[0m             \\u001b[0mhook_result\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mhook\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mself\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0minput\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mresult\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n      \"\\u001b[0;32m~/anaconda/envs/xepy37_test/lib/python3.7/site-packages/xenonpy/model/sequential.py\\u001b[0m in \\u001b[0;36mforward\\u001b[0;34m(self, x)\\u001b[0m\\n\\u001b[1;32m    137\\u001b[0m     \\u001b[0;32mdef\\u001b[0m \\u001b[0mforward\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mself\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mx\\u001b[0m\\u001b[0;34m:\\u001b[0m \\u001b[0mAny\\u001b[0m\\u001b[0;34m)\\u001b[0m \\u001b[0;34m->\\u001b[0m \\u001b[0mAny\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    138\\u001b[0m         \\u001b[0;32mfor\\u001b[0m \\u001b[0mi\\u001b[0m \\u001b[0;32min\\u001b[0m \\u001b[0mrange\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m_h_layers\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0;32m--> 139\\u001b[0;31m             \\u001b[0mx\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mgetattr\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mself\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34mf'layer_{i}'\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mx\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0m\\u001b[1;32m    140\\u001b[0m         \\u001b[0;32mreturn\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0moutput\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mx\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n      \"\\u001b[0;32m~/anaconda/envs/xepy37_test/lib/python3.7/site-packages/torch/nn/modules/module.py\\u001b[0m in \\u001b[0;36m__call__\\u001b[0;34m(self, *input, **kwargs)\\u001b[0m\\n\\u001b[1;32m    491\\u001b[0m             \\u001b[0mresult\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m_slow_forward\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m*\\u001b[0m\\u001b[0minput\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m**\\u001b[0m\\u001b[0mkwargs\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    492\\u001b[0m         \\u001b[0;32melse\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0;32m--> 493\\u001b[0;31m             \\u001b[0mresult\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mforward\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m*\\u001b[0m\\u001b[0minput\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m**\\u001b[0m\\u001b[0mkwargs\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0m\\u001b[1;32m    494\\u001b[0m         \\u001b[0;32mfor\\u001b[0m \\u001b[0mhook\\u001b[0m \\u001b[0;32min\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m_forward_hooks\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mvalues\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    495\\u001b[0m             \\u001b[0mhook_result\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mhook\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mself\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0minput\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mresult\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n      \"\\u001b[0;32m~/anaconda/envs/xepy37_test/lib/python3.7/site-packages/xenonpy/model/sequential.py\\u001b[0m in \\u001b[0;36mforward\\u001b[0;34m(self, x)\\u001b[0m\\n\\u001b[1;32m     43\\u001b[0m \\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m     44\\u001b[0m     \\u001b[0;32mdef\\u001b[0m \\u001b[0mforward\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mself\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mx\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0;32m---> 45\\u001b[0;31m         \\u001b[0m_out\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mlinear\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mx\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0m\\u001b[1;32m     46\\u001b[0m         \\u001b[0;32mif\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mdropout\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m     47\\u001b[0m             \\u001b[0m_out\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mdropout\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0m_out\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n      \"\\u001b[0;32m~/anaconda/envs/xepy37_test/lib/python3.7/site-packages/torch/nn/modules/module.py\\u001b[0m in \\u001b[0;36m__call__\\u001b[0;34m(self, *input, **kwargs)\\u001b[0m\\n\\u001b[1;32m    491\\u001b[0m             \\u001b[0mresult\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m_slow_forward\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m*\\u001b[0m\\u001b[0minput\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m**\\u001b[0m\\u001b[0mkwargs\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    492\\u001b[0m         \\u001b[0;32melse\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0;32m--> 493\\u001b[0;31m             \\u001b[0mresult\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mforward\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m*\\u001b[0m\\u001b[0minput\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0;34m**\\u001b[0m\\u001b[0mkwargs\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0m\\u001b[1;32m    494\\u001b[0m         \\u001b[0;32mfor\\u001b[0m \\u001b[0mhook\\u001b[0m \\u001b[0;32min\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0m_forward_hooks\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mvalues\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m    495\\u001b[0m             \\u001b[0mhook_result\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mhook\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mself\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0minput\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mresult\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n      \"\\u001b[0;32m~/anaconda/envs/xepy37_test/lib/python3.7/site-packages/torch/nn/modules/linear.py\\u001b[0m in \\u001b[0;36mforward\\u001b[0;34m(self, input)\\u001b[0m\\n\\u001b[1;32m     90\\u001b[0m     \\u001b[0;34m@\\u001b[0m\\u001b[0mweak_script_method\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m     91\\u001b[0m     \\u001b[0;32mdef\\u001b[0m \\u001b[0mforward\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mself\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0minput\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0;32m---> 92\\u001b[0;31m         \\u001b[0;32mreturn\\u001b[0m \\u001b[0mF\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mlinear\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0minput\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mweight\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mself\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mbias\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0m\\u001b[1;32m     93\\u001b[0m \\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m     94\\u001b[0m     \\u001b[0;32mdef\\u001b[0m \\u001b[0mextra_repr\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mself\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n      \"\\u001b[0;32m~/anaconda/envs/xepy37_test/lib/python3.7/site-packages/torch/nn/functional.py\\u001b[0m in \\u001b[0;36mlinear\\u001b[0;34m(input, weight, bias)\\u001b[0m\\n\\u001b[1;32m   1404\\u001b[0m     \\u001b[0;32mif\\u001b[0m \\u001b[0minput\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mdim\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m)\\u001b[0m \\u001b[0;34m==\\u001b[0m \\u001b[0;36m2\\u001b[0m \\u001b[0;32mand\\u001b[0m \\u001b[0mbias\\u001b[0m \\u001b[0;32mis\\u001b[0m \\u001b[0;32mnot\\u001b[0m \\u001b[0;32mNone\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m   1405\\u001b[0m         \\u001b[0;31m# fused op is marginally faster\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0;32m-> 1406\\u001b[0;31m         \\u001b[0mret\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0mtorch\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0maddmm\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mbias\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0minput\\u001b[0m\\u001b[0;34m,\\u001b[0m \\u001b[0mweight\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mt\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[0m\\u001b[1;32m   1407\\u001b[0m     \\u001b[0;32melse\\u001b[0m\\u001b[0;34m:\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\\u001b[1;32m   1408\\u001b[0m         \\u001b[0moutput\\u001b[0m \\u001b[0;34m=\\u001b[0m \\u001b[0minput\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mmatmul\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0mweight\\u001b[0m\\u001b[0;34m.\\u001b[0m\\u001b[0mt\\u001b[0m\\u001b[0;34m(\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m)\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0;34m\\u001b[0m\\u001b[0m\\n\",\n      \"\\u001b[0;31mRuntimeError\\u001b[0m: size mismatch, m1: [1024 x 10407], m2: [567 x 502] at /Users/distiller/project/conda/conda-bld/pytorch_1556653464916/work/aten/src/TH/generic/THTensorMath.cpp:961\"\n     ]\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 1500x750 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# plot training loss (based on the best mae among the three traced models)\\n\",\n    \"import matplotlib.pyplot as plt\\n\",\n    \"from xenonpy.model.training import Trainer\\n\",\n    \"from xenonpy.model.training.dataset import ArrayDataset\\n\",\n    \"from torch.utils.data import DataLoader\\n\",\n    \"from xenonpy.model.training.extension import TensorConverter\\n\",\n    \"\\n\",\n    \"train_batch_size = 512 # based on total number data\\n\",\n    \"test_batch_size = 1024 # based on total number data\\n\",\n    \"\\n\",\n    \"for i, checker in enumerate(checkers):\\n\",\n    \"    # plot training loss\\n\",\n    \"    fig, ax = plt.subplots(figsize=(10, 5), dpi=150)\\n\",\n    \"    trainer = Trainer.load(from_=checker).extend(TensorConverter())\\n\",\n    \"    _ = trainer.training_info.plot(y=['train_mse_loss', 'val_mse'], ax=ax)\\n\",\n    \"    fig.savefig(f'{save_plots}/Train_{model_list[i]}')\\n\",\n    \"    \\n\",\n    \"    # plot observation vs. prediction (based on the best mae among the three traced models)\\n\",\n    \"    sp = checker['splitter']\\n\",\n    \"    x_train, x_val, y_train, y_val = sp.split(desc, prop)\\n\",\n    \"    \\n\",\n    \"    train_dataset = DataLoader(ArrayDataset(x_train, y_train), shuffle=True, batch_size=train_batch_size)\\n\",\n    \"    val_dataset = DataLoader(ArrayDataset(x_val, y_val), batch_size=test_batch_size)\\n\",\n    \"    \\n\",\n    \"    y_pred, y_true = trainer.predict(dataset=val_dataset, checkpoint='mae_1')\\n\",\n    \"    y_fit_pred, y_fit_true = trainer.predict(dataset=train_dataset, checkpoint='mae_1')\\n\",\n    \"    draw(y_true, y_pred, y_fit_true, y_fit_pred, prop_name='HL gap',file_dir=save_plots, file_name='P2O_'+model_list[i])\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"##### 3. randomly picking a subset of descriptors from the full descriptors as input for each neural network\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"roughly takes 2-3mins\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 5,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"CPU times: user 56.4 s, sys: 6.77 s, total: 1min 3s\\n\",\n      \"Wall time: 2min 20s\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"%%time\\n\",\n    \"\\n\",\n    \"# pick a property as output\\n\",\n    \"prop = data['HOMO-LUMO gap'].to_frame()\\n\",\n    \"# pre-calculate all descriptors\\n\",\n    \"desc = FPs_All.transform(data['SMILES'])\\n\",\n    \"# remove NaN row\\n\",\n    \"prop = prop[~desc.isnull().any(axis=1)]\\n\",\n    \"desc = desc[~desc.isnull().any(axis=1)]\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"prepare a function to generate random number of neurons uniformly from a given range at each hidden layer for a given total number of layer, for which the max and min values of the ranges are linearly decaying with a pair of fixed max and min values at the first and the last hidden layer determined based on fractions of the input dimension.\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 6,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# the fixed max and min ratio at the first and the last hidden layer \\n\",\n    \"# are determined empirically based on the length of the descriptor\\n\",\n    \"\\n\",\n    \"def neuron_vector(nL, in_neu):\\n\",\n    \"    max_vec = np.linspace(int(in_neu*0.9),100,nL)\\n\",\n    \"    min_vec = np.linspace(int(in_neu*0.7),10,nL)\\n\",\n    \"    return sorted([np.random.randint(min_vec[i], max_vec[i]) for i in range(nL)], reverse=True)\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 7,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[502, 385, 247, 201, 31]\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[454, 363, 280, 124, 56]\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[458, 424, 229, 173, 96]\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[423, 361, 282, 201, 62]\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[486, 332, 312, 121, 30]\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[529, 379, 278, 117, 13]\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[471, 348, 226, 165, 13]\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[470, 364, 280, 134, 83]\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[480, 334, 245, 169, 37]\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    },\n    {\n     \"data\": {\n      \"text/plain\": [\n       \"[520, 337, 263, 167, 52]\"\n      ]\n     },\n     \"execution_count\": 7,\n     \"metadata\": {},\n     \"output_type\": \"execute_result\"\n    }\n   ],\n   \"source\": [\n    \"# test the function\\n\",\n    \"for _ in range(10):\\n\",\n    \"    neuron_vector(5, 600)\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"prepare a function to automatically generate names for each model\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 8,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"def make_name(model):\\n\",\n    \"    name = ['HLgap']\\n\",\n    \"    for n, m in model.named_children():\\n\",\n    \"        if 'layer_' in n:\\n\",\n    \"            name.append(str(m.linear.in_features))\\n\",\n    \"        else:\\n\",\n    \"            name.append(str(m.in_features))\\n\",\n    \"            name.append(str(m.out_features))\\n\",\n    \"    return '-'.join(name)\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"training models (this time the generator is greated inside the loop)\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 14,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# import libraries\\n\",\n    \"import matplotlib.pyplot as plt\\n\",\n    \"\\n\",\n    \"import torch\\n\",\n    \"from torch.utils.data import DataLoader\\n\",\n    \"\\n\",\n    \"from xenonpy.datatools import preset, Splitter\\n\",\n    \"from xenonpy.descriptor import Compositions\\n\",\n    \"\\n\",\n    \"from torch.nn import LeakyReLU\\n\",\n    \"from xenonpy.utils import ParameterGenerator\\n\",\n    \"\\n\",\n    \"from xenonpy.model import SequentialLinear, LinearLayer\\n\",\n    \"from xenonpy.model.training import Trainer, SGD, MSELoss, Adam, ReduceLROnPlateau, ExponentialLR, ClipValue\\n\",\n    \"from xenonpy.model.training.extension import Validator, TensorConverter, Persist\\n\",\n    \"from xenonpy.model.training.dataset import ArrayDataset\\n\",\n    \"from xenonpy.model.utils import regression_metrics\\n\",\n    \"\\n\",\n    \"from collections import OrderedDict\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 15,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"trainer = Trainer(\\n\",\n    \"    optimizer=Adam(lr=0.01),\\n\",\n    \"    loss_func=MSELoss(),\\n\",\n    \"    cuda=False,\\n\",\n    \").extend(\\n\",\n    \"    TensorConverter(),\\n\",\n    \"    Validator(metrics_func=regression_metrics, early_stopping=50, trace_order=3, mae=0.0, pearsonr=1.0),\\n\",\n    \")\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 16,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"\\r\",\n      \"Training:   0%|          | 0/500 [00:00<?, ?it/s]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Number of descriptors picked:  567\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Training:   4%|▍         | 20/500 [02:13<53:32,  6.69s/it]\"\n     ]\n    },\n    {\n     \"name\": \"stdout\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"Early stopping is applied: no improvement for ['mae', 'pearsonr'] since the last 51 iterations, finish training at iteration 536\\n\"\n     ]\n    },\n    {\n     \"name\": \"stderr\",\n     \"output_type\": \"stream\",\n     \"text\": [\n      \"\\n\"\n     ]\n    }\n   ],\n   \"source\": [\n    \"summary = []\\n\",\n    \"save_folder = 'Test_HLgap_RandFP500to1k'\\n\",\n    \"N_train = int(prop.shape[0]*0.8)\\n\",\n    \"train_batch_size = 512 # based on total number data\\n\",\n    \"test_batch_size = 1024 # based on total number data\\n\",\n    \"max_epochs = 200\\n\",\n    \"N_desc_range = (500, 1000)\\n\",\n    \"\\n\",\n    \"for _ in range(100):\\n\",\n    \"    \\n\",\n    \"    sp = Splitter(prop.shape[0], test_size=prop.shape[0]-N_train)\\n\",\n    \"    x_train, x_val, y_train, y_val = sp.split(desc, prop)\\n\",\n    \"    \\n\",\n    \"    # remove all-0 or all-1 columns based on the training set\\n\",\n    \"    x_train = x_train.loc[:, (x_train != 0).any(axis=0)]\\n\",\n    \"    x_train = x_train.loc[:, (x_train != 1).any(axis=0)]\\n\",\n    \"    \\n\",\n    \"    # randomly pick a subset of descriptors\\n\",\n    \"    x_train = x_train.sample(min(np.random.randint(N_desc_range[0],N_desc_range[1]+1), x_train.shape[1]), axis=1)\\n\",\n    \"    x_val = x_val[x_train.columns]\\n\",\n    \"    \\n\",\n    \"    train_dataset = DataLoader(ArrayDataset(x_train, y_train), shuffle=True, batch_size=train_batch_size)\\n\",\n    \"    val_dataset = DataLoader(ArrayDataset(x_val, y_val), batch_size=test_batch_size)\\n\",\n    \"    \\n\",\n    \"    print('Number of descriptors picked: ',len(x_train.columns))\\n\",\n    \"    \\n\",\n    \"    # prepare generator here\\n\",\n    \"    generator = ParameterGenerator(\\n\",\n    \"        in_features=x_train.shape[1],\\n\",\n    \"        out_features=1,\\n\",\n    \"        h_neurons=dict(\\n\",\n    \"            data=lambda x: neuron_vector(x, x_train.shape[1]), \\n\",\n    \"            repeat=(3, 4, 5)\\n\",\n    \"        ),\\n\",\n    \"        h_activation_funcs=(LeakyReLU(),)\\n\",\n    \"    )\\n\",\n    \"    \\n\",\n    \"    # get one random model from the generator\\n\",\n    \"    paras, model = next(generator(num=1,factory=SequentialLinear))\\n\",\n    \"    \\n\",\n    \"    model_name = make_name(model)\\n\",\n    \"    persist = Persist(\\n\",\n    \"        f'{save_folder}/{model_name}', \\n\",\n    \"        # -^- required -^-\\n\",\n    \"        \\n\",\n    \"        # -v- optional -v-\\n\",\n    \"        increment=True, \\n\",\n    \"        sync_training_step=True,\\n\",\n    \"        model_class=SequentialLinear,\\n\",\n    \"        model_params=paras,\\n\",\n    \"        author='Someone',\\n\",\n    \"        email='someone@email.com',\\n\",\n    \"        dataset='Pubchem_ikebata',\\n\",\n    \"    )\\n\",\n    \"    _ = trainer.extend(persist)\\n\",\n    \"    trainer.reset(to=model)\\n\",\n    \"    \\n\",\n    \"    trainer.fit(training_dataset=train_dataset, validation_dataset=val_dataset, epochs=max_epochs)\\n\",\n    \"    # make sure we record the column names of the descriptors that we have picked!\\n\",\n    \"    persist(splitter=sp, data_indices=prop.index.tolist(), x_colnames=x_train.columns)  # <-- calling of this method only after the model training\\n\",\n    \"    \\n\",\n    \"    training_info = trainer.training_info\\n\",\n    \"    \\n\",\n    \"    summary.append(OrderedDict(\\n\",\n    \"        id=model_name,\\n\",\n    \"        mae=training_info['val_mae'].min(),\\n\",\n    \"        mse=training_info['val_mse'].min(),\\n\",\n    \"        r2=training_info['val_r2'].max(),\\n\",\n    \"        corr=training_info['val_pearsonr'].max(),\\n\",\n    \"        spearman_corr=training_info['val_spearmanr'].max(),\\n\",\n    \"    ))\\n\",\n    \"\\n\",\n    \"# record the summary of the results\\n\",\n    \"summary = pd.DataFrame(summary)\\n\",\n    \"summary.to_pickle(f'{save_folder}/summary.pd.xz')\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"markdown\",\n   \"metadata\": {},\n   \"source\": [\n    \"plot training results\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 10,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# prepare target and plotting folders, and load models\\n\",\n    \"import os\\n\",\n    \"from xenonpy.model.training import Checker\\n\",\n    \"\\n\",\n    \"target_folder = 'Test_HLgap_RandFP500to1k'\\n\",\n    \"save_plots = 'Plots_' + target_folder\\n\",\n    \"\\n\",\n    \"if not os.path.exists(save_plots):\\n\",\n    \"    os.makedirs(save_plots)\\n\",\n    \"\\n\",\n    \"checkers = []\\n\",\n    \"model_list = []\\n\",\n    \"tmp_file = os.listdir(target_folder)\\n\",\n    \"for tmp in tmp_file:\\n\",\n    \"    if os.path.isdir(f'{target_folder}/{tmp}'):\\n\",\n    \"        model_list.append(tmp)\\n\",\n    \"        checkers.append(Checker(f'{target_folder}/{tmp}'))\\n\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 18,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": [\n    \"# prediction vs. observation plots (single test trial)\\n\",\n    \"import seaborn as sb\\n\",\n    \"\\n\",\n    \"def draw(y_true, y_pred, y_true_fit=None, y_pred_fit=None, *, prop_name, log_scale=False, file_dir=None, file_name=None):\\n\",\n    \"\\n\",\n    \"    mask = ~np.isnan(y_pred)\\n\",\n    \"    y_true = y_true[mask]\\n\",\n    \"    y_pred = y_pred[mask]\\n\",\n    \"        \\n\",\n    \"    data = pd.DataFrame(dict(Observation=y_true, Prediction=y_pred, dataset=['test'] * len(y_true)))\\n\",\n    \"    scores = metrics(data['Observation'], data['Prediction'])\\n\",\n    \"    \\n\",\n    \"    if y_true_fit is not None and y_pred_fit is not None:\\n\",\n    \"        mask = ~np.isnan(y_pred_fit)\\n\",\n    \"        y_true_fit = y_true_fit[mask]\\n\",\n    \"        y_pred_fit = y_pred_fit[mask]\\n\",\n    \"        train_ = pd.DataFrame(dict(Observation=y_true_fit, Prediction=y_pred_fit, dataset=['train'] * len(y_true_fit)))\\n\",\n    \"        data = pd.concat([train_, data])\\n\",\n    \"\\n\",\n    \"    if log_scale:\\n\",\n    \"        data = data.apply(lambda c: np.log(c.values) if c.dtype.type is not np.object_ else c, axis=0)\\n\",\n    \"#         test_ = test_.apply(lambda c: np.log(c.values) if c.dtype.type is not np.object_ else c, axis=0)\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"\\n\",\n    \"#     with sb.set(font_scale=2.5):\\n\",\n    \"    g = sb.lmplot(x=\\\"Prediction\\\", y=\\\"Observation\\\", hue=\\\"dataset\\\", ci=None,\\n\",\n    \"                  data=data, palette=\\\"Set1\\\", height=10, legend=False,  markers=[\\\".\\\", \\\"o\\\"],\\n\",\n    \"                  scatter_kws={'s': 25, 'alpha': 0.7}, hue_order=['train', 'test'])\\n\",\n    \"    \\n\",\n    \"    ax = plt.gca()\\n\",\n    \"    tmp = [data[\\\"Prediction\\\"].max(), data[\\\"Prediction\\\"].min(), data[\\\"Observation\\\"].max(), data[\\\"Observation\\\"].max()]\\n\",\n    \"    min_, max_ = np.min(tmp), np.max(tmp)\\n\",\n    \"    margin = (max_- min_) / 15\\n\",\n    \"    min_ = min_ - margin\\n\",\n    \"    max_ = max_ + margin\\n\",\n    \"    ax.set_xlim(min_, max_)\\n\",\n    \"    ax.set_ylim(min_, max_)\\n\",\n    \"    ax.set_xlabel(ax.get_xlabel(), fontsize='xx-large')\\n\",\n    \"    ax.set_ylabel(ax.get_ylabel(), fontsize='xx-large')\\n\",\n    \"    ax.tick_params(axis='both', which='major', labelsize='xx-large')\\n\",\n    \"    ax.plot((min_, max_), (min_, max_), ':', color='gray')\\n\",\n    \"    ax.set_title(prop_name, fontsize='xx-large')\\n\",\n    \"    if log_scale:\\n\",\n    \"        ax.set_title(prop_name + ' (log scale)', fontsize='xx-large')\\n\",\n    \"    ax.text(0.98, 0.03,\\n\",\n    \"            'MAE: %.5f\\\\nRMSE: %.5f\\\\nPearsonR: %.5f\\\\nSpearmanR: %.5f' % (scores['mae'], scores['rmse'], scores['pearsonr'], scores['spearmanr']),\\n\",\n    \"            transform=ax.transAxes, horizontalalignment='right', fontsize='xx-large')\\n\",\n    \"\\n\",\n    \"    ax.legend(loc='upper left', markerscale=2, fancybox=True, shadow=True, frameon=True, facecolor='w', fontsize=18)\\n\",\n    \"\\n\",\n    \"    plt.tight_layout()\\n\",\n    \"    if file_dir and file_name:\\n\",\n    \"        if log_scale:\\n\",\n    \"            plt.savefig(file_dir + '/' + file_name + '_log_scale.png', dpi=300, bbox_inches='tight')\\n\",\n    \"        else:\\n\",\n    \"            plt.savefig(file_dir + '/' + file_name + '.png', dip=300, bbox_inches='tight')\\n\",\n    \"    else:\\n\",\n    \"        print('Missing directory and/or file name information!')\\n\",\n    \"        \\n\",\n    \"# calculating basic statistics for predictions\\n\",\n    \"def metrics(y_true, y_pred, ignore_nan=True):\\n\",\n    \"    from sklearn.metrics import mean_absolute_error, r2_score, mean_squared_error\\n\",\n    \"    from scipy.stats import pearsonr, spearmanr\\n\",\n    \"    \\n\",\n    \"    if ignore_nan:\\n\",\n    \"        mask = ~np.isnan(y_pred)\\n\",\n    \"        y_true = y_true[mask]\\n\",\n    \"        y_pred = y_pred[mask]\\n\",\n    \"    \\n\",\n    \"    mae = mean_absolute_error(y_true, y_pred)\\n\",\n    \"    rmse = np.sqrt(mean_squared_error(y_true, y_pred))\\n\",\n    \"    r2 = r2_score(y_true, y_pred)\\n\",\n    \"    pr, p_val = pearsonr(y_true, y_pred)\\n\",\n    \"    sr, _ = spearmanr(y_true, y_pred)\\n\",\n    \"    return dict(\\n\",\n    \"        mae=mae,\\n\",\n    \"        rmse=rmse,\\n\",\n    \"        r2=r2,\\n\",\n    \"        pearsonr=pr,\\n\",\n    \"        spearmanr=sr,\\n\",\n    \"        p_value=p_val\\n\",\n    \"    )\"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": 21,\n   \"metadata\": {},\n   \"outputs\": [\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 1500x750 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    },\n    {\n     \"data\": {\n      \"image/png\": \"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\\n\",\n      \"text/plain\": [\n       \"<Figure size 720x720 with 1 Axes>\"\n      ]\n     },\n     \"metadata\": {\n      \"needs_background\": \"light\"\n     },\n     \"output_type\": \"display_data\"\n    }\n   ],\n   \"source\": [\n    \"# plot training loss (based on the best mae among the three traced models)\\n\",\n    \"import matplotlib.pyplot as plt\\n\",\n    \"from xenonpy.model.training import Trainer\\n\",\n    \"from xenonpy.model.training.dataset import ArrayDataset\\n\",\n    \"from torch.utils.data import DataLoader\\n\",\n    \"from xenonpy.model.training.extension import TensorConverter\\n\",\n    \"\\n\",\n    \"train_batch_size = 512 # based on total number data\\n\",\n    \"test_batch_size = 1024 # based on total number data\\n\",\n    \"\\n\",\n    \"for i, checker in enumerate(checkers):\\n\",\n    \"    # plot training loss\\n\",\n    \"    fig, ax = plt.subplots(figsize=(10, 5), dpi=150)\\n\",\n    \"    trainer = Trainer.load(from_=checker).extend(TensorConverter())\\n\",\n    \"    _ = trainer.training_info.plot(y=['train_mse_loss', 'val_mse'], ax=ax)\\n\",\n    \"    fig.savefig(f'{save_plots}/Train_{model_list[i]}')\\n\",\n    \"    \\n\",\n    \"    # plot observation vs. prediction (based on the best mae among the three traced models)\\n\",\n    \"    sp = checker['splitter']\\n\",\n    \"    x_train, x_val, y_train, y_val = sp.split(desc, prop)\\n\",\n    \"    \\n\",\n    \"    x_colnames = checker['x_colnames']\\n\",\n    \"    x_train = x_train[x_colnames]\\n\",\n    \"    x_val = x_val[x_colnames]\\n\",\n    \"    \\n\",\n    \"    train_dataset = DataLoader(ArrayDataset(x_train, y_train), shuffle=True, batch_size=train_batch_size)\\n\",\n    \"    val_dataset = DataLoader(ArrayDataset(x_val, y_val), batch_size=test_batch_size)\\n\",\n    \"    \\n\",\n    \"    y_pred, y_true = trainer.predict(dataset=val_dataset, checkpoint='mae_1')\\n\",\n    \"    y_fit_pred, y_fit_true = trainer.predict(dataset=train_dataset, checkpoint='mae_1')\\n\",\n    \"    draw(y_true, y_pred, y_fit_true, y_fit_pred, prop_name='HL gap',file_dir=save_plots, file_name='P2O_'+model_list[i])\\n\",\n    \"    \"\n   ]\n  },\n  {\n   \"cell_type\": \"code\",\n   \"execution_count\": null,\n   \"metadata\": {},\n   \"outputs\": [],\n   \"source\": []\n  }\n ],\n \"metadata\": {\n  \"kernelspec\": {\n   \"display_name\": \"xepy37_test\",\n   \"language\": \"python\",\n   \"name\": \"xepy37_test\"\n  },\n  \"language_info\": {\n   \"codemirror_mode\": {\n    \"name\": \"ipython\",\n    \"version\": 3\n   },\n   \"file_extension\": \".py\",\n   \"mimetype\": \"text/x-python\",\n   \"name\": \"python\",\n   \"nbconvert_exporter\": \"python\",\n   \"pygments_lexer\": \"ipython3\",\n   \"version\": \"3.7.4\"\n  }\n },\n \"nbformat\": 4,\n \"nbformat_minor\": 2\n}\n"
  },
  {
    "path": "xenonpy/contrib/sample_codes/combine_fragments/combine_fragments.py",
    "content": "#  Copyright (c) 2021. stewu5. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport pandas as pd\nfrom rdkit import Chem\nfrom xenonpy.inverse.iqspr import NGram\n\ndef combine_fragments(smis_base, smis_frag):\n    \"\"\"\n    combine two SMILES strings with '*' as connection points, note that no proper treatment for '-*', '=*', or '#*' yet.\n\n    Parameters\n    ----------\n    smis_base: str\n        SMILES for combining.\n        If no '*', assume connection point at the end.\n        If more than one '*', the first will be picked if it's not the 1st character.\n    smis_frag: str\n        SMILES for combining.\n        If no '*', assume connection point at the front.\n        If more than one '*', the first will be picked.\n    \"\"\"\n\n    # prepare NGram object for use of ext. SMILES\n    ngram = NGram()\n\n    # check position of '*'\n    mols_base = Chem.MolFromSmiles(smis_base)\n    if mols_base is None:\n        raise RuntimeError('Invalid base SMILES!')\n    idx_base = [i for i in range(mols_base.GetNumAtoms()) if mols_base.GetAtomWithIdx(i).GetSymbol() == '*']\n\n    # rearrange base SMILES to avoid 1st char = '*' (assume no '**')\n    if len(idx_base) == 1 and idx_base[0] == 0:\n        smis_base_head = Chem.MolToSmiles(mols_base,rootedAtAtom=1)\n    elif len(idx_base) == 0:\n        smis_base_head = smis_base + '*'\n    else:\n        smis_base_head = smis_base\n\n    # converge base to ext. SMILES and pick insertion location\n    esmi_base = ngram.smi2esmi(smis_base_head)\n    esmi_base = esmi_base[:-1]\n    idx_base = esmi_base.index[esmi_base['esmi'] == '*'].tolist()\n    if idx_base[0] == 0:\n        if len(idx_base) == 1:\n            # put treatment here\n            raise RuntimeError('Probably -*, =*, and/or #* exist')\n        else:\n            idx_base = idx_base[1]\n    else:\n        idx_base = idx_base[0]\n\n    # rearrange fragment to have 1st char = '*' and convert to ext. SMILES\n    mols_frag = Chem.MolFromSmiles(smis_frag)\n    if mols_frag is None:\n        raise RuntimeError('Invalid frag SMILES!')\n    idx_frag = [i for i in range(mols_frag.GetNumAtoms()) if mols_frag.GetAtomWithIdx(i).GetSymbol() == '*']\n    if len(idx_frag) == 0: # if -*, =*, and/or #* exist, not counted as * right now\n        esmi_frag = ngram.smi2esmi(smis_frag)\n        # remove last '!'\n        esmi_frag = esmi_frag[:-1]\n    else:\n        esmi_frag = ngram.smi2esmi(Chem.MolToSmiles(mols_frag,rootedAtAtom=idx_frag[0]))\n        # remove leading '*' and last '!'\n        esmi_frag = esmi_frag[1:-1]\n\n    # check open rings of base SMILES\n    nRing_base = esmi_base['n_ring'].loc[idx_base]\n\n    # re-number rings in fragment SMILES\n    esmi_frag['n_ring'] = esmi_frag['n_ring'] + nRing_base\n\n    # delete '*' at the insertion location\n    esmi_base = esmi_base.drop(idx_base).reset_index(drop=True)\n\n    # combine base with the fragment\n    ext_smi = pd.concat([esmi_base.iloc[:idx_base], esmi_frag, esmi_base.iloc[idx_base:]]).reset_index(drop=True)\n    new_pd_row = {'esmi': '!', 'n_br': 0, 'n_ring': 0, 'substr': ['!']}\n    ext_smi.append(new_pd_row, ignore_index=True)\n\n    return ngram.esmi2smi(ext_smi)\n\n\n"
  },
  {
    "path": "xenonpy/contrib/sample_codes/iQSPR_V/iQSPR_F.py",
    "content": "# IQSPR with focus on molecule variety: bring in new initial molecules from reservoir in every step of SMC\n\nimport numpy as np\nimport pandas as pd\n\nfrom rdkit import Chem\nfrom xenonpy.inverse.iqspr import NGram\nfrom xenonpy.inverse.base import BaseSMC, BaseProposal, BaseLogLikelihood, SMCError\n\n# class SMCError(Exception):\n#     \"\"\"Base exception for SMC classes\"\"\"\n#     pass\n\nclass IQSPR_F(BaseSMC):\n\n    def __init__(self, *, estimator, modifier):\n        \"\"\"\n        SMC iqspr runner.\n        Parameters\n        ----------\n        estimator : BaseLogLikelihood or BaseLogLikelihoodSet\n            Log likelihood estimator for given SMILES.\n        modifier : BaseProposal\n            Modify given SMILES to new ones.\n        \"\"\"\n        self._proposal = modifier\n        self._log_likelihood = estimator\n\n    def resample(self, sims, size, p):\n        return np.random.choice(sims, size=size, p=p)\n\n    @property\n    def modifier(self):\n        return self._proposal\n\n    @modifier.setter\n    def modifier(self, value):\n        self._proposal = value\n\n    @property\n    def estimator(self):\n        return self._log_likelihood\n\n    @estimator.setter\n    def estimator(self, value):\n        self._log_likelihood = value\n        \n    def fragmenting(self, smis):\n        frag_list = []\n        \n        for smi in smis:\n            decomp = Chem.Recap.RecapDecompose(Chem.MolFromSmiles(smi))\n            first_gen = [node.mol for node in decomp.children.values()]\n            frag_list += [Chem.MolToSmiles(x) for x in first_gen]\n                \n        return list(set(frag_list))\n    \n    def combine_fragments(self, smis_base, smis_frag):\n        \"\"\"\n        combine two SMILES strings with '*' as connection points\n        Parameters\n        ----------\n        smis_base: str\n            SMILES for combining.\n            If no '*', assume connection point at the end.\n            If more than one '*', the first will be picked if it's not the 1st character.\n        smis_frag: str\n            SMILES for combining.\n            If no '*', assume connection point at the front.\n            If more than one '*', the first will be picked.\n        \"\"\"\n\n        # prepare NGram object for use of ext. SMILES\n        ngram = NGram()\n\n        # check position of '*'\n        mols_base = Chem.MolFromSmiles(smis_base)\n        if mols_base is None:\n            raise RuntimeError('Invalid base SMILES!')\n        idx_base = [i for i in range(mols_base.GetNumAtoms()) if mols_base.GetAtomWithIdx(i).GetSymbol() == '*']\n\n        # rearrange base SMILES to avoid 1st char = '*'\n        if len(idx_base) == 1 and idx_base[0] == 0:\n            smis_base_head = Chem.MolToSmiles(mols_base,rootedAtAtom=1)\n        elif len(idx_base) == 0:\n            smis_base_head = smis_base + '*'\n        else:\n            smis_base_head = smis_base\n\n        # converge base to ext. SMILES and pick insertion location\n        esmi_base = ngram.smi2esmi(smis_base_head)\n        esmi_base = esmi_base[:-1]\n        idx_base = esmi_base.index[esmi_base['esmi'] == '*'].tolist()\n        if idx_base[0] == 0:\n            idx_base = idx_base[1]\n        else:\n            idx_base = idx_base[0]\n\n        # rearrange fragment to have 1st char = '*' and convert to ext. SMILES\n        mols_frag = Chem.MolFromSmiles(smis_frag)\n        if mols_frag is None:\n            raise RuntimeError('Invalid frag SMILES!')\n        idx_frag = [i for i in range(mols_frag.GetNumAtoms()) if mols_frag.GetAtomWithIdx(i).GetSymbol() == '*']\n        if len(idx_frag) == 0:\n            esmi_frag = ngram.smi2esmi(smis_frag)\n            # remove last '!'\n            esmi_frag = esmi_frag[:-1]\n        else:\n            esmi_frag = ngram.smi2esmi(Chem.MolToSmiles(mols_frag,rootedAtAtom=idx_frag[0]))\n            # remove leading '*' and last '!'\n            esmi_frag = esmi_frag[1:-1]\n\n        # check open rings of base SMILES\n        nRing_base = esmi_base['n_ring'].loc[idx_base]\n\n        # re-number rings in fragment SMILES\n        esmi_frag['n_ring'] = esmi_frag['n_ring'] + nRing_base\n\n        # delete '*' at the insertion location\n        esmi_base = esmi_base.drop(idx_base).reset_index(drop=True)\n\n        # combine base with the fragment\n        ext_smi = pd.concat([esmi_base.iloc[:idx_base], esmi_frag, esmi_base.iloc[idx_base:]]).reset_index(drop=True)\n        new_pd_row = {'esmi': '!', 'n_br': 0, 'n_ring': 0, 'substr': ['!']}\n        ext_smi.append(new_pd_row, ignore_index=True)\n\n        return ngram.esmi2smi(ext_smi)\n    \n    def __call__(self, samples, beta, *, size=None, p_frag=0.1, yield_lpf=False):\n        \"\"\"\n        Run SMC\n        Parameters\n        ----------\n        samples: list of object\n            Initial samples.\n        beta: list/1D-numpy of float or pd.Dataframe\n            Annealing parameters for each step.\n            If pd.Dataframe, column names should follow keys of mdl in BaseLogLikeihood or BaseLogLikelihoodSet\n        size: int\n            Sample size for each draw.\n        p_frag: float\n            Probability of performing a fragment based mutation\n        yield_lpf : bool\n            Yield estimated log likelihood, probability and frequency of each samples. Default is ``False``.\n        Yields\n        -------\n        samples: list of object\n            New samples in each SMC iteration.\n        llh: np.ndarray float\n            Estimated values of log-likelihood of each samples.\n            Only yield when ``yield_lpf=Ture``.\n        p: np.ndarray of float\n            Estimated probabilities of each samples.\n            Only yield when ``yield_lpf=Ture``.\n        freq: np.ndarray of float\n            The number of unique samples in original samples.\n            Only yield when ``yield_lpf=Ture``.\n        \"\"\"\n\n        # sample size will be set to the length of init_samples if None\n        if size is None:\n            size = len(samples)\n\n        try:\n            unique, frequency = self.unique(samples)\n            ll = self.log_likelihood(unique)\n\n            if isinstance(beta, pd.DataFrame):\n                beta = beta[ll.columns].values\n            else:\n                # assume only one row for beta (1-D list or numpy vector)\n                beta = np.transpose(np.repeat([beta], ll.shape[1], axis=0))\n\n            w = np.dot(ll.values, beta[0]) + np.log(frequency)\n            w_sum = np.log(np.sum(np.exp(w - np.max(w)))) + np.max(w)  # avoid underflow\n            p = np.exp(w - w_sum)\n            if yield_lpf:\n                yield unique, ll, p, frequency\n            else:\n                yield unique\n\n            # beta = np.delete(beta,0,0) #remove first \"row\"\n\n        except SMCError as e:\n            self.on_errors(0, samples, e)\n        except Exception as e:\n            raise e\n\n        # translate between input representation and execute environment representation.\n        # make sure beta is not changed (np.delete will return the deleted version, without changing original vector)\n        for i, step in enumerate(np.delete(beta, 0, 0)):\n            try:\n                re_samples = self.resample(unique, size, p)\n                if np.random.random() < p_frag:\n                    frag_list = self.fragmenting(re_samples)\n                    samples = [self.combine_fragments(np.random.choice(frag_list), np.random.choice(frag_list)) for _ in range(size)]\n                else:\n                    samples = self.proposal(re_samples)\n                    \n                unique, frequency = self.unique(samples)\n\n                # annealed likelihood in log - adjust with copy counts\n                ll = self.log_likelihood(unique)\n                w = np.dot(ll.values, step) + np.log(frequency)\n                w_sum = np.log(np.sum(np.exp(w - np.max(w)))) + np.max(w)  # avoid underflow\n                p = np.exp(w - w_sum)\n                if yield_lpf:\n                    yield unique, ll, p, frequency\n                else:\n                    yield unique\n\n            except SMCError as e:\n                self.on_errors(i + 1, samples, e)\n            except Exception as e:\n                raise e\n                \n"
  },
  {
    "path": "xenonpy/contrib/sample_codes/iQSPR_V/iQSPR_V.py",
    "content": "# IQSPR with focus on molecule variety: bring in new initial molecules from reservoir in every step of SMC\n\nimport numpy as np\nimport pandas as pd\n\nfrom xenonpy.inverse.base import BaseSMC, BaseProposal, BaseLogLikelihood, SMCError\n\n#class SMCError(Exception):\n#    \"\"\"Base exception for SMC classes\"\"\"\n#    pass\n\nclass IQSPR_V(BaseSMC):\n\n    def __init__(self, *, estimator, modifier):\n        \"\"\"\n        SMC iqspr runner.\n        Parameters\n        ----------\n        estimator : BaseLogLikelihood or BaseLogLikelihoodSet\n            Log likelihood estimator for given SMILES.\n        modifier : BaseProposal\n            Modify given SMILES to new ones.\n        \"\"\"\n        self._proposal = modifier\n        self._log_likelihood = estimator\n\n    def resample(self, sims, size, p):\n        return np.random.choice(sims, size=size, p=p)\n\n    @property\n    def modifier(self):\n        return self._proposal\n\n    @modifier.setter\n    def modifier(self, value):\n        self._proposal = value\n\n    @property\n    def estimator(self):\n        return self._log_likelihood\n\n    @estimator.setter\n    def estimator(self, value):\n        self._log_likelihood = value\n        \n    def __call__(self, reservoir, beta, size=100, *, samples=None, ratio=0.5, yield_lpf=False):\n        \"\"\"\n        Run SMC\n        Parameters\n        ----------\n        reservoir: list of object\n            Samples to be drawn as new initial molecules in each step of SMC\n        beta: list/1D-numpy of float or pd.Dataframe\n            Annealing parameters for each step.\n            If pd.Dataframe, column names should follow keys of mdl in BaseLogLikeihood or BaseLogLikelihoodSet\n        size: int\n            Sample size for each draw.\n        samples: list of object\n            Initial samples.\n        ratio: float\n            ratio of molecules to be replaced from reservoir in each step of SMC\n        yield_lpf : bool\n            Yield estimated log likelihood, probability and frequency of each samples. Default is ``False``.\n        Yields\n        -------\n        samples: list of object\n            New samples in each SMC iteration.\n        llh: np.ndarray float\n            Estimated values of log-likelihood of each samples.\n            Only yield when ``yield_lpf=Ture``.\n        p: np.ndarray of float\n            Estimated probabilities of each samples.\n            Only yield when ``yield_lpf=Ture``.\n        freq: np.ndarray of float\n            The number of unique samples in original samples.\n            Only yield when ``yield_lpf=Ture``.\n        \"\"\"\n\n        # initial samples will be randomly picked from resevoir if samples are not provided\n        if samples is None:\n            samples = np.random.choice(reservoir,size=size).tolist()\n        # refill samples if len(samples) not equals given size\n        elif len(samples) < size:\n            samples = np.concatenate([np.array(samples), np.random.choice(reservoir,size=size-len(samples))])\n            \n        res_size = int(size*ratio)\n        smc_size = size - res_size\n\n        try:\n            unique, frequency = self.unique(samples)\n            ll = self.log_likelihood(unique)\n\n            if isinstance(beta, pd.DataFrame):\n                beta = beta[ll.columns].values\n            else:\n                # assume only one row for beta (1-D list or numpy vector)\n                beta = np.transpose(np.repeat([beta], ll.shape[1], axis=0))\n\n            w = np.dot(ll.values, beta[0]) + np.log(frequency)\n            w_sum = np.log(np.sum(np.exp(w - np.max(w)))) + np.max(w)  # avoid underflow\n            p = np.exp(w - w_sum)\n            if yield_lpf:\n                yield unique, ll, p, frequency\n            else:\n                yield unique\n\n            # beta = np.delete(beta,0,0) #remove first \"row\"\n\n        except SMCError as e:\n            self.on_errors(0, samples, e)\n        except Exception as e:\n            raise e\n\n        # translate between input representation and execute environment representation.\n        # make sure beta is not changed (np.delete will return the deleted version, without changing original vector)\n        for i, step in enumerate(np.delete(beta, 0, 0)):\n            try:\n                re_samples = self.resample(unique, smc_size, p)\n                samples = self.proposal(np.concatenate([re_samples, np.random.choice(reservoir,size=res_size)]))\n\n                unique, frequency = self.unique(samples)\n\n                # annealed likelihood in log - adjust with copy counts\n                ll = self.log_likelihood(unique)\n                w = np.dot(ll.values, step) + np.log(frequency)\n                w_sum = np.log(np.sum(np.exp(w - np.max(w)))) + np.max(w)  # avoid underflow\n                p = np.exp(w - w_sum)\n                if yield_lpf:\n                    yield unique, ll, p, frequency\n                else:\n                    yield unique\n\n            except SMCError as e:\n                self.on_errors(i + 1, samples, e)\n            except Exception as e:\n                raise e\n                \n"
  },
  {
    "path": "xenonpy/contrib/sample_codes/iQSPR_V/iQSPR_VF.py",
    "content": "# IQSPR with focus on molecule variety: bring in new initial molecules from reservoir in every step of SMC and allow mutation based on fragmentation\n\nimport numpy as np\nimport pandas as pd\n\nfrom rdkit import Chem\nfrom xenonpy.inverse.iqspr import NGram\nfrom xenonpy.inverse.base import BaseSMC, BaseProposal, BaseLogLikelihood, SMCError\n\n# class SMCError(Exception):\n#     \"\"\"Base exception for SMC classes\"\"\"\n#     pass\n\nclass IQSPR_VF(BaseSMC):\n\n    def __init__(self, *, estimator, modifier):\n        \"\"\"\n        SMC iqspr runner.\n        Parameters\n        ----------\n        estimator : BaseLogLikelihood or BaseLogLikelihoodSet\n            Log likelihood estimator for given SMILES.\n        modifier : BaseProposal\n            Modify given SMILES to new ones.\n        \"\"\"\n        self._proposal = modifier\n        self._log_likelihood = estimator\n\n    def resample(self, sims, size, p):\n        return np.random.choice(sims, size=size, p=p)\n\n    @property\n    def modifier(self):\n        return self._proposal\n\n    @modifier.setter\n    def modifier(self, value):\n        self._proposal = value\n\n    @property\n    def estimator(self):\n        return self._log_likelihood\n\n    @estimator.setter\n    def estimator(self, value):\n        self._log_likelihood = value\n        \n    def fragmenting(self, smis):\n        frag_list = []\n        \n        for smi in smis:\n            decomp = Chem.Recap.RecapDecompose(Chem.MolFromSmiles(smi))\n            first_gen = [node.mol for node in decomp.children.values()]\n            frag_list += [Chem.MolToSmiles(x) for x in first_gen]\n                \n        return list(set(frag_list))\n    \n    def combine_fragments(self, smis_base, smis_frag):\n        \"\"\"\n        combine two SMILES strings with '*' as connection points\n        Parameters\n        ----------\n        smis_base: str\n            SMILES for combining.\n            If no '*', assume connection point at the end.\n            If more than one '*', the first will be picked if it's not the 1st character.\n        smis_frag: str\n            SMILES for combining.\n            If no '*', assume connection point at the front.\n            If more than one '*', the first will be picked.\n        \"\"\"\n\n        # prepare NGram object for use of ext. SMILES\n        ngram = NGram()\n\n        # check position of '*'\n        mols_base = Chem.MolFromSmiles(smis_base)\n        if mols_base is None:\n            raise RuntimeError('Invalid base SMILES!')\n        idx_base = [i for i in range(mols_base.GetNumAtoms()) if mols_base.GetAtomWithIdx(i).GetSymbol() == '*']\n\n        # rearrange base SMILES to avoid 1st char = '*'\n        if len(idx_base) == 1 and idx_base[0] == 0:\n            smis_base_head = Chem.MolToSmiles(mols_base,rootedAtAtom=1)\n        elif len(idx_base) == 0:\n            smis_base_head = smis_base + '*'\n        else:\n            smis_base_head = smis_base\n\n        # converge base to ext. SMILES and pick insertion location\n        esmi_base = ngram.smi2esmi(smis_base_head)\n        esmi_base = esmi_base[:-1]\n        idx_base = esmi_base.index[esmi_base['esmi'] == '*'].tolist()\n        if idx_base[0] == 0:\n            idx_base = idx_base[1]\n        else:\n            idx_base = idx_base[0]\n\n        # rearrange fragment to have 1st char = '*' and convert to ext. SMILES\n        mols_frag = Chem.MolFromSmiles(smis_frag)\n        if mols_frag is None:\n            raise RuntimeError('Invalid frag SMILES!')\n        idx_frag = [i for i in range(mols_frag.GetNumAtoms()) if mols_frag.GetAtomWithIdx(i).GetSymbol() == '*']\n        if len(idx_frag) == 0:\n            esmi_frag = ngram.smi2esmi(smis_frag)\n            # remove last '!'\n            esmi_frag = esmi_frag[:-1]\n        else:\n            esmi_frag = ngram.smi2esmi(Chem.MolToSmiles(mols_frag,rootedAtAtom=idx_frag[0]))\n            # remove leading '*' and last '!'\n            esmi_frag = esmi_frag[1:-1]\n\n        # check open rings of base SMILES\n        nRing_base = esmi_base['n_ring'].loc[idx_base]\n\n        # re-number rings in fragment SMILES\n        esmi_frag['n_ring'] = esmi_frag['n_ring'] + nRing_base\n\n        # delete '*' at the insertion location\n        esmi_base = esmi_base.drop(idx_base).reset_index(drop=True)\n\n        # combine base with the fragment\n        ext_smi = pd.concat([esmi_base.iloc[:idx_base], esmi_frag, esmi_base.iloc[idx_base:]]).reset_index(drop=True)\n        new_pd_row = {'esmi': '!', 'n_br': 0, 'n_ring': 0, 'substr': ['!']}\n        ext_smi.append(new_pd_row, ignore_index=True)\n\n        return ngram.esmi2smi(ext_smi)\n\n    def __call__(self, reservoir, beta, size=100, *, samples=None, ratio=0.5, p_frag=0.1, yield_lpf=False):\n        \"\"\"\n        Run SMC\n        Parameters\n        ----------\n        reservoir: list of object\n            Samples to be drawn as new initial molecules in each step of SMC\n        beta: list/1D-numpy of float or pd.Dataframe\n            Annealing parameters for each step.\n            If pd.Dataframe, column names should follow keys of mdl in BaseLogLikeihood or BaseLogLikelihoodSet\n        size: int\n            Sample size for each draw.\n        samples: list of object\n            Initial samples.\n        ratio: float\n            Ratio of molecules to be replaced from reservoir in each step of SMC\n        p_frag: float\n            Probability of performing a fragment based mutation\n        yield_lpf : bool\n            Yield estimated log likelihood, probability and frequency of each samples. Default is ``False``.\n        Yields\n        -------\n        samples: list of object\n            New samples in each SMC iteration.\n        llh: np.ndarray float\n            Estimated values of log-likelihood of each samples.\n            Only yield when ``yield_lpf=Ture``.\n        p: np.ndarray of float\n            Estimated probabilities of each samples.\n            Only yield when ``yield_lpf=Ture``.\n        freq: np.ndarray of float\n            The number of unique samples in original samples.\n            Only yield when ``yield_lpf=Ture``.\n        \"\"\"\n\n        # initial samples will be randomly picked from resevoir if samples are provided\n        if samples is None:\n            samples = np.random.choice(reservoir,size=size).tolist()\n        # refill samples if len(samples) not equals given size\n        elif len(samples) < size:\n#             samples = samples + np.random.choice(reservoir,size=size-len(samples)).tolist()\n            samples = np.concatenate([np.array(samples), np.random.choice(reservoir,size=size-len(samples))])\n            \n        res_size = int(size*ratio)\n        smc_size = size - res_size\n\n        try:\n            unique, frequency = self.unique(samples)\n            ll = self.log_likelihood(unique)\n\n            if isinstance(beta, pd.DataFrame):\n                beta = beta[ll.columns].values\n            else:\n                # assume only one row for beta (1-D list or numpy vector)\n                beta = np.transpose(np.repeat([beta], ll.shape[1], axis=0))\n\n            w = np.dot(ll.values, beta[0]) + np.log(frequency)\n            w_sum = np.log(np.sum(np.exp(w - np.max(w)))) + np.max(w)  # avoid underflow\n            p = np.exp(w - w_sum)\n            if yield_lpf:\n                yield unique, ll, p, frequency\n            else:\n                yield unique\n\n            # beta = np.delete(beta,0,0) #remove first \"row\"\n\n        except SMCError as e:\n            self.on_errors(0, samples, e)\n        except Exception as e:\n            raise e\n\n        # translate between input representation and execute environment representation.\n        # make sure beta is not changed (np.delete will return the deleted version, without changing original vector)\n        for i, step in enumerate(np.delete(beta, 0, 0)):\n            try:\n                re_samples = self.resample(unique, smc_size, p)\n                if np.random.random() < p_frag:\n                    frag_list = self.fragmenting(np.concatenate([re_samples, np.random.choice(reservoir,size=res_size)]))\n                    samples = [self.combine_fragments(np.random.choice(frag_list), np.random.choice(frag_list)) for _ in range(size)]\n                else:\n                    samples = self.proposal(np.concatenate([re_samples, np.random.choice(reservoir,size=res_size)])) \n\n                unique, frequency = self.unique(samples)\n\n                # annealed likelihood in log - adjust with copy counts\n                ll = self.log_likelihood(unique)\n                w = np.dot(ll.values, step) + np.log(frequency)\n                w_sum = np.log(np.sum(np.exp(w - np.max(w)))) + np.max(w)  # avoid underflow\n                p = np.exp(w - w_sum)\n                if yield_lpf:\n                    yield unique, ll, p, frequency\n                else:\n                    yield unique\n\n            except SMCError as e:\n                self.on_errors(i + 1, samples, e)\n            except Exception as e:\n                raise e\n                \n"
  },
  {
    "path": "xenonpy/datatools/__init__.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n\nfrom .dataset import *\nfrom .preset import *\nfrom .splitter import *\nfrom .transform import *\n"
  },
  {
    "path": "xenonpy/datatools/dataset.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport os\nimport re\nfrom collections import defaultdict\nfrom pathlib import Path\nfrom warnings import warn\n\nimport joblib\nimport pandas as pd\nimport requests\n\n__all__ = ['Dataset']\n\n\nclass Dataset(object):\n    __extension__ = dict(\n        pandas=(r'.*\\.pd($|\\.\\w+$)', pd.read_pickle),\n        csv=(r'csv', pd.read_csv),\n        excel=(r'(xlsx|xls)', pd.read_excel),\n        pickle=(r'.*\\.pkl($|\\.\\w+$)', joblib.load))\n\n    __re__ = re.compile(r'[\\s\\-.]')\n\n    def __init__(self, *paths, backend='pandas', prefix=None):\n        self._backend = backend\n        self._files = None\n\n        if len(paths) == 0:\n            self._paths = ('.',)\n        else:\n            self._paths = paths\n\n        if not prefix:\n            prefix = ()\n        self._prefix = prefix\n\n        self._make_index(prefix=prefix)\n\n    def _make_index(self, *, prefix):\n\n        def make(path_):\n            def _nest(_f):\n                f_ = _f\n                return lambda s: s.__extension__[s._backend][1](f_)\n\n            patten = re.compile(self.__extension__[self._backend][0])\n            for f in os.listdir(str(path_)):\n                if patten.search(f):\n                    fn = f.split('.')[0]\n                    fn = self.__re__.sub('_', fn)\n                    fp = str(path_ / f)\n\n                    # select data\n                    parent = re.split(r'[\\\\/]', str(path_))[-1]\n                    # parent = str(f.parent).split('/')[-1]\n                    if parent in prefix:\n                        fn = '_'.join([parent, fn])\n\n                    if fn in self._files:\n                        warn(\n                            \"file %s with name %s already bind to %s and will be ignored\" %\n                            (fp, fn, self._files[fn]), RuntimeWarning)\n                    else:\n                        self._files[fn] = fp\n                        setattr(self.__class__, fn, property(_nest(fp)))\n\n        self._files = defaultdict(str)\n        for path in self._paths:\n            path = Path(path).expanduser().absolute()\n            if not path.exists():\n                raise RuntimeError('%s not exists' % str(path))\n            make(path)\n\n    @classmethod\n    def to(cls, obj, path, *, force_pkl=False):\n        if isinstance(path, Path):\n            path = str(path)\n        if not force_pkl and isinstance(obj, (pd.DataFrame, pd.Series)):\n            return obj.to_pickle(path)\n        return joblib.dump(obj, path)\n\n    @classmethod\n    def from_http(cls, url, save_to, *, filename=None, chunk_size=256 * 1024, params=None,\n                  **kwargs):\n        \"\"\"\n        Get file object via a http request.\n\n        Parameters\n        ----------\n        url: str\n            The resource url.\n        save_to: str\n            The path of a dir to save the downloaded object into it.\n        filename: str, optional\n            Specific the file name when saving.\n            Set to ``None`` (default) to use a inferred name from http header.\n        chunk_size: int, optional\n            Chunk size.\n        params: any, optional\n            Parameters will be passed to ``requests.get`` function.\n            See Also: `requests <http://docs.python-requests.org/>`_\n        kwargs: dict, optional\n            Pass to ``requests.get`` function as the ``kwargs`` parameters.\n\n        Returns\n        -------\n        str\n            File path contains file name.\n        \"\"\"\n        r = requests.get(url, params, **kwargs)\n        r.raise_for_status()\n\n        if not filename:\n            if 'filename' in r.headers:\n                filename = r.headers['filename']\n            else:\n                filename = url.split('/')[-1]\n\n        if isinstance(save_to, str):\n            save_to = Path(save_to)\n        if not isinstance(save_to, Path) or not save_to.is_dir():\n            raise RuntimeError('%s is not a legal path or not point to a dir' % save_to)\n\n        file_ = str(save_to / filename)\n        with open(file_, 'wb') as f:\n            for chunk in r.iter_content(chunk_size=chunk_size):\n                if chunk:  # filter out keep-alive new chunks\n                    f.write(chunk)\n\n        return file_\n\n    def __repr__(self):\n        cont_ls = ['<{}> includes:'.format(self.__class__.__name__)]\n\n        for k, v in self._files.items():\n            cont_ls.append('\"{}\": {}'.format(k, v))\n\n        return '\\n'.join(cont_ls)\n\n    @property\n    def csv(self):\n        return Dataset(*self._paths, backend='csv', prefix=self._prefix)\n\n    @property\n    def pandas(self):\n        return Dataset(*self._paths, backend='pandas', prefix=self._prefix)\n\n    @property\n    def pickle(self):\n        return Dataset(*self._paths, backend='pickle', prefix=self._prefix)\n\n    @property\n    def excel(self):\n        return Dataset(*self._paths, backend='excel', prefix=self._prefix)\n\n    def __call__(self, *args, **kwargs):\n        return self.__extension__[self._backend][1](*args, **kwargs)\n\n    def __getattr__(self, name):\n        \"\"\"\n        Returns sub-dataset.\n\n        Parameters\n        ----------\n        name: str\n            Dataset name.\n\n        Returns\n        -------\n        self\n        \"\"\"\n        if name in self.__extension__:\n            return self.__class__(*self._paths, backend=name, prefix=self._prefix)\n        raise AttributeError(\"'%s' object has no attribute '%s'\" % (self.__class__.__name__, name))\n"
  },
  {
    "path": "xenonpy/datatools/mp_ids.txt",
    "content": "mp-556521\nmp-19852\nmp-1226003\nmp-29946\nmp-1214215\nmp-556709\nmp-567628\nmp-27187\nmp-1204495\nmp-2804\nmp-1228955\nmp-1178446\nmp-1225073\nmp-1214848\nmp-555908\nmp-28392\nmp-21276\nmp-1105136\nmp-581584\nmp-1104050\nmp-20046\nmp-1120756\nmp-643006\nmp-29455\nmp-1210010\nmp-559182\nmp-998762\nmp-713\nmp-1209422\nmp-1188309\nmp-849325\nmp-1019105\nmp-1204836\nmp-541897\nmp-669415\nmp-1205686\nmp-989612\nmp-27648\nmp-4661\nmp-723378\nmp-17822\nmp-1201259\nmp-13277\nmp-762019\nmp-1200086\nmp-1192751\nmp-25977\nmp-1223315\nmp-6660\nmp-23122\nmp-6474\nmp-1104062\nmp-28995\nmp-1185329\nmp-1223649\nmp-866141\nmp-6046\nmp-775326\nmp-1018025\nmp-1103398\nmp-1197491\nmp-1079483\nmp-22564\nmp-1101909\nmp-1225982\nmp-1020108\nmp-5222\nmp-28257\nmp-16780\nmp-1080045\nmp-769460\nmp-542085\nmp-553924\nmp-1212449\nmp-6081\nmp-541677\nmp-18641\nmp-1219553\nmp-20580\nmp-13725\nmp-1221048\nmp-1190279\nmp-730\nmp-23353\nmp-14444\nmp-685928\nmp-1029828\nmp-610491\nmp-989555\nmp-570530\nmp-571461\nmp-1223571\nmp-504506\nmp-27569\nmp-757613\nmp-560144\nmp-1205421\nmp-1206487\nmp-1201412\nmp-1105940\nmp-1209005\nmp-1198384\nmp-1220062\nmp-866003\nmp-27517\nmp-560742\nmp-570238\nmp-23425\nmp-680048\nmp-8931\nmp-14889\nmp-1200574\nmp-36262\nmp-1211874\nmp-1194804\nmp-755363\nmp-1167\nmp-555812\nmp-554732\nmp-562072\nmp-28163\nmp-556463\nmp-12046\nmp-1205693\nmp-29062\nmp-27199\nmp-998428\nmp-23550\nmp-14386\nmp-1227372\nmp-1219278\nmp-1193265\nmp-557747\nmp-672258\nmp-24657\nmp-1219605\nmp-17542\nmp-28696\nmp-18258\nmp-510456\nmp-11051\nmp-644672\nmp-552185\nmp-11639\nmp-8207\nmp-1195436\nmp-1203584\nmp-1105715\nmp-558255\nmp-1211812\nmp-770767\nmp-29945\nmp-9077\nmp-4533\nmp-555344\nmp-1542014\nmp-752849\nmp-1193232\nmp-1229194\nmp-560082\nmp-556689\nmp-1195299\nmp-5073\nmp-3347\nmp-27439\nmp-571341\nmp-1225006\nmp-18612\nmp-17173\nmp-1192836\nmp-738629\nmp-8796\nmp-558576\nmp-1202893\nmp-17945\nmp-1193169\nmp-1114360\nmp-978278\nmp-560115\nmp-2715\nmp-557824\nmp-1198767\nmp-1189104\nmp-570066\nmp-15789\nmp-1221515\nmp-1219591\nmp-973586\nmp-571648\nmp-560685\nmp-3187\nmp-653579\nmp-1013558\nmp-541037\nmp-555609\nmp-1224649\nmp-1212574\nmp-565447\nmp-22989\nmp-27443\nmp-23137\nmp-755492\nmp-865280\nmp-20222\nmp-30056\nmp-1229321\nmp-1205011\nmp-696762\nmp-1080693\nmp-1197632\nmp-3716\nmp-530524\nmp-581345\nmp-616141\nmp-581533\nmp-1112970\nmp-557654\nmp-1208979\nmp-862787\nmp-1210315\nmp-605771\nmp-1209161\nmp-1199965\nmp-866662\nmp-3042\nmp-29138\nmp-643071\nmp-557761\nmp-680015\nmp-1212024\nmp-863435\nmp-28387\nmp-18194\nmp-640389\nmp-4202\nmp-28872\nmp-771106\nmp-1541477\nmp-761036\nmp-18844\nmp-1203015\nmp-1194197\nmp-18051\nmp-29330\nmp-645690\nmp-6892\nmp-1020147\nmp-1211137\nmp-644307\nmp-555417\nmp-560050\nmp-1173377\nmp-863678\nmp-28070\nmp-24124\nmp-1194442\nmp-546552\nmp-1200892\nmp-12309\nmp-541005\nmp-34763\nmp-17811\nmp-761184\nmp-541953\nmp-1205361\nmp-1190423\nmp-3273\nmp-558320\nmp-27939\nmp-14435\nmp-1199278\nmp-30460\nmp-27182\nmp-505435\nmp-553310\nmp-16945\nmp-111\nmp-638150\nmp-1078908\nmp-1207511\nmp-27688\nmp-1217378\nmp-8195\nmp-561018\nmp-1193021\nmp-1192634\nmp-1066131\nmp-556514\nmp-1102052\nmp-17673\nmp-3897\nmp-1216911\nmp-34141\nmp-5342\nmp-1208766\nmp-29331\nmp-5088\nmp-865120\nmp-20288\nmp-559213\nmp-1202913\nmp-1185579\nmp-560459\nmp-1190566\nmp-4340\nmp-2983\nmp-556139\nmp-149\nmp-1211486\nmp-26963\nmp-1209719\nmp-558838\nmp-1224210\nmp-29585\nmp-1193194\nmp-8866\nmp-886\nmp-771255\nmp-757021\nmp-984716\nmp-1195899\nmp-540912\nmp-4727\nmp-541350\nmp-1111080\nmp-3050\nmp-9338\nmp-541352\nmp-1104135\nmp-23526\nmp-32798\nmp-560901\nmp-19037\nmp-29077\nmp-560365\nmp-34078\nmp-1211643\nmp-559186\nmp-16990\nmp-557457\nmp-23488\nmp-864662\nmp-753574\nmp-604889\nmp-18147\nmp-1195262\nmp-556902\nmp-1020016\nmp-865301\nmp-29703\nmp-1197180\nmp-1198737\nmp-555742\nmp-559932\nmp-703444\nmp-29931\nmp-1206350\nmp-24335\nmp-771651\nmp-975666\nmp-1209918\nmp-568836\nmp-1193801\nmp-978852\nmp-16812\nmp-1029418\nmp-1191118\nmp-7148\nmp-606510\nmp-779287\nmp-1173034\nmp-22867\nmp-570884\nmp-28044\nmp-16183\nmp-558229\nmp-1204788\nmp-17544\nmp-697044\nmp-989638\nmp-12797\nmp-17090\nmp-559426\nmp-23565\nmp-1078746\nmp-1191189\nmp-27411\nmp-559722\nmp-1220043\nmp-16096\nmp-9672\nmp-1211701\nmp-574620\nmp-555221\nmp-4426\nmp-27904\nmp-610744\nmp-647342\nmp-18125\nmp-12642\nmp-569129\nmp-17123\nmp-1226125\nmp-1219158\nmp-1105223\nmp-559610\nmp-554421\nmp-22576\nmp-989604\nmp-557282\nmp-541093\nmp-5078\nmp-1104232\nmp-1199892\nmp-1190416\nmp-7494\nmp-560585\nmp-1212617\nmp-15147\nmp-759912\nmp-1208776\nmp-559376\nmp-7152\nmp-556986\nmp-761185\nmp-1198049\nmp-30943\nmp-1078295\nmp-676315\nmp-554941\nmp-27564\nmp-562042\nmp-1112141\nmp-7028\nmp-627380\nmp-866308\nmp-553947\nmp-27239\nmp-643902\nmp-1078999\nmp-1078132\nmp-29496\nmp-504722\nmp-22882\nmp-558217\nmp-1193312\nmp-1195\nmp-1212059\nmp-1207669\nmp-1113578\nmp-1214153\nmp-1244\nmp-1232408\nmp-686674\nmp-17862\nmp-1216363\nmp-24069\nmp-28455\nmp-558159\nmp-1278131\nmp-1213352\nmp-758238\nmp-551456\nmp-1204668\nmp-567756\nmp-560934\nmp-31289\nmp-554252\nmp-1214263\nmp-703673\nmp-28125\nmp-6026\nmp-557260\nmp-1114601\nmp-1190131\nmp-553971\nmp-554783\nmp-667305\nmp-1226158\nmp-1208610\nmp-557918\nmp-559540\nmp-9657\nmp-31020\nmp-7104\nmp-1111421\nmp-1198762\nmp-1209185\nmp-541291\nmp-16978\nmp-40226\nmp-2576\nmp-30126\nmp-1214566\nmp-1227163\nmp-568264\nmp-541450\nmp-1202377\nmp-695911\nmp-27310\nmp-6390\nmp-1222544\nmp-29273\nmp-24662\nmp-556488\nmp-1025274\nmp-573631\nmp-29168\nmp-1193337\nmp-28372\nmp-1227604\nmp-17100\nmp-1192528\nmp-1222196\nmp-4325\nmp-1227220\nmp-645945\nmp-1213213\nmp-560189\nmp-569304\nmp-989567\nmp-540584\nmp-6163\nmp-14423\nmp-1214290\nmp-28067\nmp-29956\nmp-5942\nmp-14880\nmp-1209827\nmp-29419\nmp-560158\nmp-643735\nmp-1113068\nmp-1223191\nmp-1196390\nmp-1105893\nmp-28189\nmp-2815\nmp-697047\nmp-21616\nmp-865188\nmp-557650\nmp-3529\nmp-560022\nmp-15218\nmp-1317\nmp-676313\nmp-865909\nmp-1223547\nmp-541610\nmp-1112008\nmp-1111079\nmp-30239\nmp-6168\nmp-1538990\nmp-583762\nmp-555343\nmp-552567\nmp-17524\nmp-1225829\nmp-1211829\nmp-1212001\nmp-13831\nmp-505102\nmp-542136\nmp-865980\nmp-541001\nmp-29450\nmp-18855\nmp-1214012\nmp-1194813\nmp-761944\nmp-1213486\nmp-16980\nmp-553926\nmp-31259\nmp-707540\nmp-542625\nmp-29938\nmp-16165\nmp-18721\nmp-1204773\nmp-218\nmp-11165\nmp-1543154\nmp-6639\nmp-1225724\nmp-31166\nmp-865324\nmp-1190401\nmp-1209358\nmp-541415\nmp-989522\nmp-1212265\nmp-7436\nmp-560630\nmp-6960\nmp-601257\nmp-8686\nmp-1191811\nmp-556330\nmp-1225822\nmp-1215669\nmp-1202664\nmp-685069\nmp-27806\nmp-1209684\nmp-4529\nmp-542710\nmp-1213680\nmp-999121\nmp-3411\nmp-555155\nmp-560793\nmp-561315\nmp-6527\nmp-557237\nmp-1193412\nmp-559160\nmp-1195801\nmp-541412\nmp-571347\nmp-1208643\nmp-4009\nmp-24648\nmp-1193606\nmp-28496\nmp-1185634\nmp-645692\nmp-532028\nmp-29334\nmp-8537\nmp-543046\nmp-27211\nmp-1192933\nmp-4068\nmp-768670\nmp-29443\nmp-1197150\nmp-23475\nmp-866480\nmp-3283\nmp-1194612\nmp-1222336\nmp-559637\nmp-1203743\nmp-556601\nmp-20250\nmp-1192533\nmp-1019611\nmp-9855\nmp-22871\nmp-849570\nmp-19012\nmp-1208770\nmp-740711\nmp-567414\nmp-1197426\nmp-1190341\nmp-758619\nmp-542888\nmp-1113441\nmp-755287\nmp-685142\nmp-570219\nmp-1192210\nmp-1306165\nmp-1192572\nmp-1105302\nmp-1221800\nmp-1658\nmp-572797\nmp-3797\nmp-781707\nmp-1227545\nmp-1208500\nmp-774702\nmp-558867\nmp-11107\nmp-27181\nmp-29911\nmp-8794\nmp-695998\nmp-2741\nmp-866214\nmp-24182\nmp-30033\nmp-1018768\nmp-27629\nmp-1296711\nmp-771941\nmp-14485\nmp-4971\nmp-504849\nmp-1111106\nmp-1080470\nmp-23033\nmp-1226157\nmp-28575\nmp-19393\nmp-1209756\nmp-628631\nmp-8615\nmp-1209234\nmp-1214049\nmp-632715\nmp-1019789\nmp-862968\nmp-12262\nmp-1541714\nmp-1218648\nmp-9059\nmp-1194756\nmp-677017\nmp-16967\nmp-1190209\nmp-23058\nmp-774193\nmp-1214991\nmp-1112448\nmp-504882\nmp-31010\nmp-561179\nmp-1218632\nmp-2695\nmp-770816\nmp-581877\nmp-12277\nmp-560939\nmp-1213976\nmp-1179734\nmp-24128\nmp-704360\nmp-570520\nmp-28205\nmp-36111\nmp-18988\nmp-557367\nmp-7505\nmp-17905\nmp-769077\nmp-3062\nmp-989551\nmp-22987\nmp-16922\nmp-1181942\nmp-15547\nmp-20399\nmp-9365\nmp-27979\nmp-1883\nmp-22934\nmp-12931\nmp-864942\nmp-23539\nmp-1205833\nmp-556117\nmp-541193\nmp-6860\nmp-14213\nmp-23562\nmp-560120\nmp-23623\nmp-1103152\nmp-2234\nmp-1197804\nmp-1209786\nmp-6089\nmp-644325\nmp-2074\nmp-777297\nmp-31049\nmp-1223746\nmp-1193554\nmp-1227232\nmp-762369\nmp-22504\nmp-10383\nmp-549728\nmp-769176\nmp-743\nmp-1190111\nmp-1111968\nmp-569984\nmp-20185\nmp-28084\nmp-865606\nmp-17024\nmp-1079149\nmp-1009088\nmp-35236\nmp-13903\nmp-699390\nmp-28695\nmp-7645\nmp-1214008\nmp-31235\nmp-24816\nmp-557163\nmp-553895\nmp-579463\nmp-1209201\nmp-1190911\nmp-1207395\nmp-998612\nmp-1068340\nmp-556552\nmp-28859\nmp-1020615\nmp-17445\nmp-560963\nmp-680722\nmp-559904\nmp-12488\nmp-1192580\nmp-559184\nmp-1197651\nmp-29722\nmp-560950\nmp-1112006\nmp-1211743\nmp-9166\nmp-31755\nmp-2472\nmp-16159\nmp-9230\nmp-8411\nmp-29590\nmp-572758\nmp-561311\nmp-27687\nmp-559894\nmp-1210844\nmp-23118\nmp-4394\nmp-1204402\nmp-1207868\nmp-1185179\nmp-560441\nmp-541057\nmp-25987\nmp-27381\nmp-1197745\nmp-1224359\nmp-560544\nmp-18797\nmp-768223\nmp-30252\nmp-1207709\nmp-504354\nmp-22963\nmp-694888\nmp-27352\nmp-1096946\nmp-679997\nmp-1078265\nmp-640885\nmp-555794\nmp-1213326\nmp-9397\nmp-28823\nmp-1183302\nmp-961687\nmp-18953\nmp-1213739\nmp-1192490\nmp-558674\nmp-9581\nmp-1102297\nmp-541134\nmp-582648\nmp-27312\nmp-1221153\nmp-567942\nmp-556802\nmp-1195788\nmp-1195032\nmp-570285\nmp-11694\nmp-16594\nmp-542514\nmp-9719\nmp-1019377\nmp-1019777\nmp-30034\nmp-555172\nmp-683903\nmp-559336\nmp-743773\nmp-977417\nmp-1112467\nmp-29977\nmp-570803\nmp-31627\nmp-23569\nmp-775485\nmp-5824\nmp-29992\nmp-867975\nmp-567752\nmp-18992\nmp-1208672\nmp-1207915\nmp-989533\nmp-23407\nmp-556500\nmp-19458\nmp-540798\nmp-6453\nmp-571240\nmp-18705\nmp-863411\nmp-18483\nmp-1209606\nmp-19407\nmp-561999\nmp-29198\nmp-561535\nmp-1191013\nmp-558707\nmp-19272\nmp-558317\nmp-3613\nmp-680676\nmp-1200496\nmp-19260\nmp-15572\nmp-13949\nmp-740718\nmp-743697\nmp-12644\nmp-643257\nmp-1097065\nmp-680374\nmp-1201962\nmp-510271\nmp-651332\nmp-1225159\nmp-9640\nmp-505799\nmp-705134\nmp-8291\nmp-1211580\nmp-19149\nmp-6442\nmp-9607\nmp-21521\nmp-1219159\nmp-18935\nmp-27456\nmp-505113\nmp-772813\nmp-722246\nmp-9257\nmp-29103\nmp-1209329\nmp-1194412\nmp-31287\nmp-23831\nmp-1213395\nmp-570886\nmp-28198\nmp-30231\nmp-1199170\nmp-555160\nmp-2956\nmp-1183042\nmp-10402\nmp-1209975\nmp-755041\nmp-1200593\nmp-3919\nmp-1182061\nmp-37859\nmp-1007907\nmp-861884\nmp-510545\nmp-16595\nmp-1189227\nmp-1210080\nmp-17308\nmp-20316\nmp-543028\nmp-28394\nmp-1188700\nmp-568662\nmp-568895\nmp-7951\nmp-1213272\nmp-1477\nmp-559224\nmp-769582\nmp-20463\nmp-1228133\nmp-1196968\nmp-13336\nmp-1975\nmp-7523\nmp-1222297\nmp-3654\nmp-1214538\nmp-556536\nmp-20199\nmp-642660\nmp-1195589\nmp-30901\nmp-13610\nmp-677013\nmp-1223953\nmp-31008\nmp-558383\nmp-569454\nmp-703316\nmp-1020122\nmp-753732\nmp-762082\nmp-1101818\nmp-540883\nmp-29051\nmp-989631\nmp-541932\nmp-555027\nmp-23442\nmp-5853\nmp-1189242\nmp-6669\nmp-1209379\nmp-19474\nmp-766540\nmp-1205759\nmp-1212299\nmp-1211301\nmp-556797\nmp-530714\nmp-1222032\nmp-29985\nmp-1112944\nmp-1173263\nmp-556539\nmp-22897\nmp-541368\nmp-560925\nmp-1213993\nmp-699937\nmp-1095278\nmp-1069771\nmp-545544\nmp-1205074\nmp-697283\nmp-549720\nmp-27198\nmp-23341\nmp-695505\nmp-557285\nmp-17256\nmp-8294\nmp-643655\nmp-24546\nmp-553959\nmp-3216\nmp-1209496\nmp-1202948\nmp-677611\nmp-13922\nmp-976384\nmp-11703\nmp-27809\nmp-9368\nmp-3427\nmp-15318\nmp-867580\nmp-556717\nmp-559257\nmp-16828\nmp-541096\nmp-1217684\nmp-5132\nmp-642844\nmp-1214115\nmp-1200647\nmp-1070860\nmp-1189005\nmp-1095440\nmp-1201605\nmp-1114379\nmp-27755\nmp-510226\nmp-1019967\nmp-31212\nmp-733612\nmp-561410\nmp-558963\nmp-17407\nmp-27604\nmp-16108\nmp-1194952\nmp-754246\nmp-1022\nmp-1211560\nmp-555589\nmp-556414\nmp-1111145\nmp-662606\nmp-16678\nmp-1191699\nmp-1190898\nmp-696329\nmp-1223347\nmp-1210714\nmp-625147\nmp-9172\nmp-1222200\nmp-504945\nmp-541090\nmp-735586\nmp-27987\nmp-23292\nmp-9789\nmp-30984\nmp-1202016\nmp-22975\nmp-561518\nmp-15222\nmp-3563\nmp-541966\nmp-865274\nmp-24470\nmp-1210818\nmp-694961\nmp-7427\nmp-695492\nmp-1195423\nmp-573358\nmp-1193984\nmp-1214569\nmp-560407\nmp-15225\nmp-557258\nmp-6964\nmp-1209249\nmp-8890\nmp-558211\nmp-1213624\nmp-22091\nmp-1190633\nmp-1101160\nmp-559563\nmp-1222651\nmp-30023\nmp-735504\nmp-1213306\nmp-559068\nmp-541771\nmp-626268\nmp-865500\nmp-18925\nmp-1219892\nmp-559713\nmp-1192906\nmp-23360\nmp-561110\nmp-866648\nmp-23336\nmp-1191931\nmp-568987\nmp-9625\nmp-557618\nmp-17133\nmp-1216536\nmp-1114468\nmp-1201694\nmp-866709\nmp-1192709\nmp-28877\nmp-542317\nmp-1224706\nmp-1215390\nmp-15643\nmp-555117\nmp-2943\nmp-5581\nmp-6013\nmp-30315\nmp-1203040\nmp-21604\nmp-561350\nmp-556866\nmp-1101894\nmp-28840\nmp-8116\nmp-645340\nmp-504482\nmp-568396\nmp-27336\nmp-759900\nmp-780572\nmp-1204674\nmp-9570\nmp-559580\nmp-554617\nmp-773137\nmp-1194569\nmp-9782\nmp-1101971\nmp-505798\nmp-561243\nmp-505281\nmp-28947\nmp-560791\nmp-532413\nmp-21119\nmp-1182034\nmp-1105695\nmp-557347\nmp-706243\nmp-18504\nmp-23450\nmp-505784\nmp-568592\nmp-865972\nmp-697096\nmp-642648\nmp-867823\nmp-1029975\nmp-14865\nmp-27848\nmp-573755\nmp-2437\nmp-9071\nmp-18511\nmp-7914\nmp-1204585\nmp-5518\nmp-694981\nmp-773117\nmp-755756\nmp-1188821\nmp-12011\nmp-1222492\nmp-17187\nmp-7467\nmp-1193901\nmp-1223527\nmp-562826\nmp-541508\nmp-10778\nmp-646116\nmp-555836\nmp-862693\nmp-1195304\nmp-626151\nmp-1196034\nmp-1212308\nmp-1113425\nmp-1189932\nmp-777460\nmp-559084\nmp-561130\nmp-1228209\nmp-1203522\nmp-1212485\nmp-28207\nmp-29662\nmp-1209642\nmp-1191513\nmp-754768\nmp-17101\nmp-989618\nmp-6943\nmp-38102\nmp-28003\nmp-980659\nmp-569813\nmp-560597\nmp-7744\nmp-23065\nmp-17864\nmp-38357\nmp-557777\nmp-1221952\nmp-1211252\nmp-1201690\nmp-27173\nmp-997161\nmp-567771\nmp-16970\nmp-4452\nmp-31132\nmp-1209627\nmp-1203009\nmp-761033\nmp-546625\nmp-1113020\nmp-1206514\nmp-3777\nmp-30905\nmp-1016092\nmp-1194826\nmp-667286\nmp-583221\nmp-555683\nmp-6062\nmp-555717\nmp-644222\nmp-1019609\nmp-1025179\nmp-23262\nmp-2231\nmp-22694\nmp-1203593\nmp-1198074\nmp-560257\nmp-558673\nmp-5001\nmp-559062\nmp-1197539\nmp-5598\nmp-754598\nmp-559431\nmp-570192\nmp-27526\nmp-27438\nmp-764295\nmp-561423\nmp-10089\nmp-1188559\nmp-757115\nmp-21792\nmp-14368\nmp-1193666\nmp-19886\nmp-16742\nmp-10246\nmp-1019548\nmp-510661\nmp-19403\nmp-1213076\nmp-1193128\nmp-1104686\nmp-1103889\nmp-1195500\nmp-23656\nmp-5532\nmp-27938\nmp-28261\nmp-21332\nmp-1219951\nmp-567373\nmp-1190151\nmp-23406\nmp-1198371\nmp-8075\nmp-569465\nmp-22325\nmp-17539\nmp-1221151\nmp-1216\nmp-554960\nmp-562542\nmp-1095625\nmp-10226\nmp-1567250\nmp-29910\nmp-1210736\nmp-696736\nmp-6253\nmp-1029791\nmp-505698\nmp-1199124\nmp-555131\nmp-14712\nmp-686572\nmp-1209295\nmp-1198622\nmp-1178030\nmp-3519\nmp-684011\nmp-1197952\nmp-555286\nmp-27999\nmp-1222448\nmp-17501\nmp-20157\nmp-1192754\nmp-1212130\nmp-555874\nmp-7061\nmp-30952\nmp-1194550\nmp-541137\nmp-1192805\nmp-558135\nmp-6730\nmp-1208102\nmp-1227255\nmp-1210092\nmp-18337\nmp-6644\nmp-1219828\nmp-1203037\nmp-18743\nmp-23444\nmp-1199087\nmp-6299\nmp-31237\nmp-23117\nmp-1013548\nmp-1203440\nmp-8985\nmp-1189906\nmp-1208868\nmp-558126\nmp-1065609\nmp-16856\nmp-1210514\nmp-558539\nmp-1211757\nmp-18831\nmp-1188089\nmp-1210429\nmp-581586\nmp-1087483\nmp-754326\nmp-14092\nmp-1200353\nmp-1202279\nmp-15954\nmp-10779\nmp-1079181\nmp-862995\nmp-1199840\nmp-1213063\nmp-28166\nmp-568801\nmp-27288\nmp-1017508\nmp-6668\nmp-22038\nmp-1192392\nmp-766966\nmp-1211474\nmp-23276\nmp-1209099\nmp-1198923\nmp-15782\nmp-1218195\nmp-553927\nmp-607454\nmp-22249\nmp-1194680\nmp-34022\nmp-17817\nmp-1210662\nmp-8932\nmp-1195227\nmp-558344\nmp-18104\nmp-22328\nmp-38725\nmp-1223983\nmp-23261\nmp-1195609\nmvc-4357\nmp-1224998\nmp-10487\nmp-1228817\nmp-21879\nmp-31624\nmp-555893\nmp-29136\nmp-1201519\nmp-7979\nmp-653973\nmp-560322\nmp-744192\nmp-4160\nmp-1013527\nmp-1206101\nmp-1199212\nmp-10480\nmp-7173\nmp-567441\nmp-1201494\nmp-772820\nmp-554741\nmp-35769\nmp-1202344\nmp-861979\nmp-559463\nmp-867929\nmp-555838\nmp-20028\nmp-1185513\nmp-1308941\nmp-676881\nmp-36381\nmp-11740\nmp-1170750\nmp-1210157\nmp-1195016\nmp-1095280\nmp-31053\nmp-28864\nmp-1196887\nmp-1113554\nmp-1218058\nmp-28804\nmp-757614\nmp-581738\nmp-23041\nmp-14354\nmp-37614\nmp-18633\nmp-999461\nmp-572441\nmp-1211249\nmp-555560\nmp-1222830\nmp-29529\nmp-1114700\nmp-1101327\nmp-1214384\nmp-556894\nmp-734194\nmp-29374\nmp-1197719\nmp-1198974\nmp-1190336\nmp-1224049\nmp-17874\nmp-1226339\nmp-23403\nmp-554076\nmp-24212\nmp-17382\nmp-768342\nmp-28456\nmp-27622\nmp-17146\nmp-1199265\nmp-13630\nmp-625150\nmp-680240\nmp-1079891\nmp-1077904\nmp-1194579\nmp-560736\nmp-29183\nmp-541895\nmp-558258\nmp-561567\nmp-1219582\nmp-23154\nmp-29282\nmp-1205852\nmp-1208723\nmp-1207793\nmp-1227442\nmp-862670\nmp-6799\nmp-542266\nmp-1185638\nmp-1214304\nmp-1226936\nmp-29731\nmp-721252\nmp-555704\nmp-30908\nmp-28123\nmp-18510\nmp-1203296\nmp-29567\nmp-10299\nmp-1201421\nmp-1204783\nmp-1204868\nmp-23467\nmp-867891\nmp-542210\nmp-560029\nmp-645796\nmp-1209350\nmp-18883\nmp-548615\nmp-1216361\nmp-1202113\nmp-10340\nmp-554885\nmp-769565\nmp-28268\nmp-1111239\nmp-632656\nmp-625381\nmp-1201047\nmp-1203438\nmp-1211291\nmp-1214730\nmp-1198273\nmp-1226388\nmp-3349\nmp-696500\nmp-558753\nmp-648414\nmp-1193269\nmp-27972\nmp-505322\nmp-1187892\nmp-541190\nmp-1198370\nmp-230\nmp-26077\nmp-1019530\nmp-625378\nmp-5450\nmp-620652\nmp-4006\nmp-1209528\nmp-27729\nmp-24570\nmp-1211124\nmp-556531\nmp-1211258\nmp-1181719\nmp-1147776\nmp-553949\nmp-29689\nmp-28111\nmp-28721\nmp-3520\nmp-1211965\nmp-22356\nmp-1213704\nmp-1214348\nmp-554249\nmp-561369\nmp-17380\nmp-643010\nmp-23465\nmp-1705\nmp-691119\nmp-567817\nmp-17926\nmp-3960\nmp-23146\nmp-755352\nmp-6665\nmp-1197516\nmp-1211639\nmp-1225983\nmp-27833\nmp-1206511\nmp-643898\nmp-733932\nmp-558102\nmp-8447\nmp-21213\nmp-1342\nmp-570935\nmp-550117\nmp-1209219\nmp-23544\nmp-16432\nmp-4887\nmp-28380\nmp-644097\nmp-1200887\nmp-5830\nmp-571544\nmp-8697\nmp-1214558\nmp-997041\nmp-1189965\nmp-1225864\nmp-1029469\nmp-558861\nmp-1214275\nmp-10517\nmp-1105594\nmp-29169\nmp-13287\nmp-11980\nmp-1105333\nmp-1078630\nmp-573274\nmp-849304\nmp-23370\nmp-1103091\nmp-15521\nmp-557186\nmp-1196979\nmp-554155\nmp-1203588\nmp-1190388\nmp-1542940\nmp-23662\nmp-1244678\nmp-558215\nmp-556639\nmp-29372\nmp-1113610\nmp-1198510\nmp-6192\nmp-1019526\nmp-641923\nmp-18605\nmp-540656\nmp-18547\nmp-1212008\nmp-1210319\nmp-1095371\nmp-1214272\nmp-28684\nmp-9636\nmp-1298582\nmp-1193242\nmp-554584\nmp-541772\nmp-743574\nmp-561049\nmp-1183053\nmp-546082\nmp-772191\nmp-643293\nmp-961713\nmp-23418\nmp-555420\nmp-1195311\nmp-1226138\nmp-1196446\nmp-18685\nmp-1112660\nmp-28007\nmp-773133\nmp-558121\nmp-542512\nmp-1025227\nmp-15783\nmp-1203462\nmp-1666\nmp-1213150\nmp-560423\nmp-680170\nmp-640353\nmp-17441\nmp-669410\nmp-1228411\nmp-1209659\nmp-1192364\nmp-1209328\nmp-573815\nmp-1223759\nmp-1864\nmp-1202045\nmp-10955\nmp-555052\nmp-17857\nmp-2979\nmp-31014\nmp-23602\nmp-17921\nmp-10838\nmp-558534\nmp-1211612\nmp-861914\nmp-1212017\nmp-581868\nmp-1213801\nmp-541912\nmp-1227389\nmp-1078269\nmp-5040\nmp-13674\nmp-1029625\nmp-1019525\nmp-1190335\nmp-1211803\nmp-16763\nmp-14023\nmp-1218763\nmp-505217\nmp-1194832\nmp-561343\nmp-29555\nmp-567644\nmp-29145\nmp-27928\nmp-28940\nmp-1222462\nmp-18893\nmp-1214461\nmp-1204248\nmp-1210117\nmp-13820\nmp-1202901\nmp-558642\nmp-1209940\nmp-6526\nmp-1212579\nmp-29462\nmp-1539101\nmp-1175419\nmp-1194862\nmp-6951\nmp-12233\nmp-1078624\nmp-557941\nmp-558486\nmp-560790\nmp-557756\nmp-14673\nmp-2908\nmp-1205700\nmp-638731\nmp-1204286\nmp-5782\nmp-560855\nmp-680713\nmp-1079666\nmp-23311\nmp-15649\nmp-1203665\nmp-861904\nmp-17177\nmp-6113\nmp-556046\nmp-1182477\nmp-9856\nmp-3822\nmp-1215577\nmp-556308\nmp-1212171\nmp-7908\nmp-642735\nmp-1209334\nmp-667372\nmp-699453\nmp-11719\nmp-1195934\nmp-31220\nmp-18463\nmp-567777\nmp-16608\nmp-28591\nmp-8187\nmp-722684\nmp-1227162\nmp-772261\nmp-542140\nmp-560688\nmp-989541\nmp-998778\nmp-27400\nmp-1112669\nmp-8872\nmp-1120731\nmp-1066791\nmp-557821\nmp-28728\nmp-30150\nmp-560330\nmp-17875\nmp-1199771\nmp-39159\nmp-571162\nmp-1025567\nmp-1279062\nmp-9565\nmp-1200258\nmp-510450\nmp-1199482\nmp-1194629\nmp-617442\nmp-547125\nmp-1195415\nmp-1208444\nmp-1072208\nmp-1019786\nmp-1193277\nmp-705435\nmp-1226988\nmp-505076\nmp-643573\nmp-558940\nmp-780075\nmp-505815\nmp-582011\nmp-22978\nmp-1029396\nmp-1192188\nmp-1189125\nmp-669351\nmp-554056\nmp-18305\nmp-558692\nmp-554111\nmp-14835\nmp-1542604\nmp-1227140\nmp-13816\nmp-24034\nmp-985829\nmp-1192718\nmp-15661\nmp-768830\nmp-1209222\nmp-18908\nmp-864898\nmp-25279\nmp-1209894\nmp-14858\nmp-1190817\nmp-697540\nmp-562480\nmp-25410\nmp-573324\nmp-607436\nmp-679\nmp-1192365\nmp-1209173\nmp-555457\nmp-8754\nmp-10163\nmp-6867\nmp-976578\nmp-8479\nmp-1194001\nmp-684911\nmp-626785\nmp-27377\nmp-1112515\nmp-29842\nmp-27484\nmp-561642\nmp-1209683\nmp-1221101\nmp-24196\nmp-1018136\nmp-22766\nmp-1200998\nmp-549709\nmp-1192642\nmp-556325\nmp-569028\nmp-849222\nmp-10933\nmp-771139\nmp-1216740\nmp-24761\nmp-554492\nmp-1191673\nmp-1199056\nmp-6019\nmp-643276\nmp-552234\nmp-733455\nmp-554887\nmp-1101401\nmp-1112596\nmp-540822\nmp-645695\nmp-1540904\nmp-677164\nmp-559384\nmp-643451\nmp-553025\nmp-1078209\nmp-867231\nmp-9010\nmp-1195896\nmp-531826\nmp-557391\nmp-865143\nmp-1221016\nmp-8177\nmp-1201514\nmp-1095485\nmp-17727\nmp-505465\nmp-10070\nmp-1020637\nmp-1219639\nmp-1211413\nmp-1214530\nmp-1195095\nmp-679927\nmp-31107\nmp-1195055\nmp-28421\nmp-1192527\nmp-19833\nmp-1210695\nmp-24619\nmp-1190543\nmp-30149\nmp-6486\nmp-1007663\nmp-1211322\nmp-720971\nmp-1113614\n"
  },
  {
    "path": "xenonpy/datatools/preset.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom itertools import zip_longest\nfrom pathlib import Path\nfrom warnings import warn\n\nimport numpy as np\nimport pandas as pd\nfrom pymatgen.ext.matproj import MPRester\nfrom ruamel.yaml import YAML\nfrom tqdm import tqdm\n\nfrom xenonpy._conf import __cfg_root__\nfrom xenonpy.datatools.dataset import Dataset\nfrom xenonpy.utils import config, get_dataset_url, get_sha256, Singleton\n\n__all__ = ['Preset', 'preset']\n\n\nclass Preset(Dataset, metaclass=Singleton):\n    \"\"\"\n    Load data from embed dataset in XenonPy's or user create data saved in ``~/.xenonpy/cached`` dir.\n    Also can fetch data by http request.\n\n    This is sample to demonstration how to use is. Also see parameters documents for details.\n\n    ::\n\n        >>> from xenonpy.datatools import preset\n        >>> elements = preset.elements\n        >>> elements.info()\n        <class 'pandas.core.frame.DataFrame'>\n        Index: 118 entries, H to Og\n        Data columns (total 74 columns):\n        atomic_number                    118 non-null int64\n        atomic_radius                    88 non-null float64\n        atomic_radius_rahm               96 non-null float64\n        atomic_volume                    91 non-null float64\n        atomic_weight                    118 non-null float64\n        boiling_point                    96 non-null float64\n        brinell_hardness                 59 non-null float64\n        bulk_modulus                     69 non-null float64\n        ...\n    \"\"\"\n\n    __dataset__ = ('elements', 'elements_completed', 'atom_init')\n    __builder__ = ('mp_samples',)\n\n    # set to check params\n\n    def __init__(self):\n        self._dataset = Path(__cfg_root__) / 'dataset'\n        self._ext_data = config('ext_data')\n        super().__init__(\n            str(self._dataset),\n            config('userdata'),\n            *self._ext_data,\n            backend='pandas',\n            prefix=('dataset',))\n\n        yaml = YAML(typ='safe')\n        yaml.indent(mapping=2, sequence=4, offset=2)\n\n        self._yaml = yaml\n\n    def sync(self, data, to=None):\n        \"\"\"\n        load data.\n\n        .. note::\n            Try to load data from local at ``~/.xenonpy/dataset``.\n            If no data, try to fetch them from remote repository.\n\n        Args\n        -----------\n        data: str\n            name of data.\n        to: str\n            The version of repository.\n            See Also: https://github.com/yoshida-lab/dataset/releases\n\n        Returns\n        ------\n        ret:DataFrame or Saver or local file path.\n        \"\"\"\n\n        dataset = self._dataset / (data + '.pd.xz')\n        sha256_file = self._dataset / 'sha256.yml'\n\n        # check sha256 value\n        # make sure sha256_file file exist.\n        sha256_file.touch()\n        sha256 = self._yaml.load(sha256_file)\n        if sha256 is None:\n            sha256 = {}\n\n        # fetch data from source if not in local\n        if not to:\n            url = get_dataset_url(data)\n        else:\n            url = get_dataset_url(data, to)\n        print('fetching dataset `{0}` from {1}.'.format(data, url))\n        self.from_http(url, save_to=str(self._dataset))\n\n        sha256_ = get_sha256(str(dataset))\n        sha256[data] = sha256_\n        self._yaml.dump(sha256, sha256_file)\n\n        self._make_index(prefix=['dataset'])\n\n    def build(self, *keys, save_to=None, **kwargs):\n\n        # build materials project dataset\n        def mp_builder(api_key, mp_ids):\n\n            #     print('Will fetch %s inorganic compounds from Materials Project' % len(mp_ids))\n\n            # split requests into fixed number groups\n            # eg: grouper('ABCDEFG', 3, 'x') --> ABC DEF Gxx\n            def grouper(iterable, n, fillvalue=None):\n                \"\"\"Collect data into fixed-length chunks or blocks\"\"\"\n                args = [iter(iterable)] * max(n, 1)\n                return zip_longest(fillvalue=fillvalue, *args)\n\n            # the following props will be fetched\n            mp_props = [\n                'band_gap',\n                'density',\n                'volume',\n                'material_id',\n                'pretty_formula',\n                'elements',\n                'efermi',\n                'e_above_hull',\n                'formation_energy_per_atom',\n                'final_energy_per_atom',\n                'unit_cell_formula',\n                'structure'\n            ]\n\n            entries = []\n            mpid_groups = [g for g in grouper(mp_ids, len(mp_ids) // 10)]\n\n            with MPRester(api_key) as mpr:\n                for group in tqdm(mpid_groups):\n                    mpid_list = [id for id in filter(None, group)]\n                    chunk = mpr.query({\"material_id\": {\"$in\": mpid_list}}, mp_props)\n                    entries.extend(chunk)\n\n            df = pd.DataFrame(entries, index=[e['material_id'] for e in entries])\n            df = df.drop('material_id', axis=1)\n            df = df.rename(columns={'unit_cell_formula': 'composition'})\n            df = df.reindex(columns=sorted(df.columns))\n\n            return df\n\n        for key in keys:\n            if key is 'mp_samples':\n                if 'api_key' not in kwargs:\n                    raise RuntimeError('api key of materials projects database is needed')\n                if 'mp_ids' in kwargs:\n                    ids = kwargs['mp_ids']\n                    if isinstance(ids, (list, tuple)):\n                        mp_ids = ids\n                    elif isinstance(ids, str):\n                        mp_ids = [s.decode('utf-8') for s in np.loadtxt(ids, 'S20')]\n                    else:\n                        raise ValueError(\n                            'parameter `mp_ids` can only be a str to specific the ids file path'\n                            'or a list-like object contain the ids')\n                else:\n                    ids = Path(__file__).absolute().parent / 'mp_ids.txt'\n                    mp_ids = [s.decode('utf-8') for s in np.loadtxt(str(ids), 'S20')]\n                data = mp_builder(kwargs['api_key'], mp_ids)\n                if not save_to:\n                    save_to = Path(config('userdata')) / 'mp_samples.pd.xz'\n                    save_to = save_to.expanduser().absolute()\n                data.to_pickle(save_to)\n                self._make_index(prefix=['dataset'])\n                return\n\n        raise ValueError('no available key(s) in %s, these can only be %s' % (keys, self.__builder__))\n\n    def _check(self, data):\n\n        dataset = self._dataset / (data + '.pd.xz')\n        sha256_file = self._dataset / 'sha256.yml'\n\n        # fetch data from source if not in local\n        if not dataset.exists():\n            raise RuntimeError(\n                \"data {0} not exist, please run <preset.sync('{0}')> to download from the repository\".format(data),\n                'See also: https://xenonpy.readthedocs.io/en/latest/tutorials/1-dataset.html'\n            )\n\n        # check sha256 value\n        sha256_file.touch()  # make sure sha256_file file exist.\n        sha256 = self._yaml.load(sha256_file)\n        if sha256 is None:\n            sha256 = {}\n        if data not in sha256:\n            sha256_ = get_sha256(str(dataset))\n            sha256[data] = sha256_\n            self._yaml.dump(sha256, sha256_file)\n        else:\n            sha256_ = sha256[data]\n\n        if sha256_ != config(data):\n            warn(\n                \"local version {0} is different from the latest version {1}.\"\n                \"you can use <Preset.sync('{0}', to='{1}')> to fix it.\".format(data, config('db_version')),\n                RuntimeWarning)\n\n    @property\n    def elements(self):\n        \"\"\"\n        Element properties from embed dataset.\n        These properties are summarized from `mendeleev`_, `pymatgen`_, `CRC Handbook`_ and `magpie`_.\n\n        See Also: :doc:`features`\n\n        .. _mendeleev: https://mendeleev.readthedocs.io\n        .. _pymatgen: http://pymatgen.org/\n        .. _CRC Handbook: http://hbcponline.com/faces/contents/ContentsSearch.xhtml\n        .. _magpie: https://bitbucket.org/wolverton/magpie\n\n        Returns\n        -------\n        DataFrame:\n            element properties in pd.DataFrame\n        \"\"\"\n        self._check('elements')\n        return self.dataset_elements\n\n    @property\n    def atom_init(self):\n        \"\"\"\n        The initialization vector for each element.\n\n        See Also: https://github.com/txie-93/cgcnn#usage\n        \"\"\"\n        self._check('atom_init')\n        return self.dataset_atom_init\n\n    @property\n    def elements_completed(self):\n        \"\"\"\n        Completed element properties. [MICE]_ imputation used\n\n        .. [MICE] `Int J Methods Psychiatr Res. 2011 Mar 1; 20(1): 40–49.`__\n                    doi: `10.1002/mpr.329 <10.1002/mpr.329>`_\n\n        .. __: https://www.ncbi.nlm.nih.gov/entrez/eutils/elink.fcgi?dbfrom=pubmed&retmode=ref&cmd=prlinks&id=21499542\n\n        See Also: :doc:`features`\n\n        Returns\n        -------\n            imputed element properties in pd.DataFrame\n        \"\"\"\n        self._check('elements_completed')\n        return self.dataset_elements_completed\n\n\npreset = Preset()\n"
  },
  {
    "path": "xenonpy/datatools/splitter.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom typing import Union, Tuple, Iterable, List\n\nimport numpy as np\nimport pandas as pd\nfrom pandas import DataFrame, Series\nfrom sklearn import utils\nfrom sklearn.base import BaseEstimator\nfrom sklearn.model_selection import train_test_split, KFold\n\n__all__ = ['Splitter']\n\n\nclass Splitter(BaseEstimator):\n    \"\"\"\n    Data splitter for train and test\n    \"\"\"\n\n    def __init__(self,\n                 size: int,\n                 *,\n                 test_size: Union[float, int] = 0.2,\n                 k_fold: Union[int, Iterable, None] = None,\n                 random_state: Union[int, None] = None,\n                 shuffle: bool = True):\n        \"\"\"\n        Parameters\n        ----------\n        size\n            Total sample size.\n            All data must have same length of their first dim,\n        test_size\n            If float, should be between ``0.0`` and ``1.0`` and represent the proportion\n            of the dataset to include in the test split. If int, represents the\n            absolute number of test samples. Can be ``0`` if cv is ``None``.\n            In this case, :meth:`~Splitter.cv` will yield a tuple only contains ``training`` and ``validation``\n            on each step. By default, the value is set to 0.2.\n        k_fold\n            Number of k-folds.\n            If ``int``, Must be at least 2.\n            If ``Iterable``, it should provide label for each element which will be used for group cv.\n            In this case, the input of :meth:`~Splitter.cv` must be a :class:`pandas.DataFrame` object.\n            Default value is None to specify no cv.\n        random_state\n            If int, random_state is the seed used by the random number generator;\n            Default is None.\n        shuffle\n            Whether or not to shuffle the data before splitting.\n        \"\"\"\n        if k_fold is None and test_size == 0:\n            raise RuntimeError('<test_size> can be zero only if <cv> is not none')\n        self._k_fold = k_fold\n        self._shuffle = shuffle\n        self._test_size = test_size\n\n        self._sample_size = np.arange(size)\n        self._test: Union[np.ndarray, None] = None\n        self._train: Union[np.ndarray, None] = None\n        self._cv_indices: List[Tuple[np.ndarray, np.ndarray]] = []\n        self._random_state = random_state\n        self.roll(random_state)\n\n    @property\n    def size(self):\n        return self._sample_size.size\n\n    @property\n    def shuffle(self):\n        return self._shuffle\n\n    @property\n    def test_size(self):\n        return self._test_size\n\n    @property\n    def k_fold(self):\n        return self._k_fold\n\n    @property\n    def random_state(self):\n        return self._random_state\n\n    def roll(self, random_state: int = None):\n\n        if self._test_size == 0:\n            if self._shuffle:\n                self._train = utils.shuffle(self._sample_size)\n            else:\n                self._train = self._sample_size\n        else:\n            if isinstance(self._k_fold, Iterable):\n                k_fold_labels: pd.Series = pd.Series(self._k_fold).reset_index(drop=True)\n                unique_labels = k_fold_labels.unique()\n                test_size = round(unique_labels.size * self._test_size) if isinstance(self._test_size, float) else round(unique_labels.size * (self._test_size / self.size))\n                test_lables: pd.Series = pd.Series(unique_labels).sample(test_size, random_state=random_state)\n                self._train, self._test = k_fold_labels[~k_fold_labels.isin(test_lables)].index.values, k_fold_labels[k_fold_labels.isin(test_lables)].index.values\n            else:\n                self._train, self._test = train_test_split(self._sample_size,\n                                                           test_size=self._test_size,\n                                                           random_state=random_state,\n                                                           shuffle=self._shuffle)\n\n        if isinstance(self._k_fold, int):\n            cv = KFold(n_splits=self._k_fold, shuffle=self._shuffle, random_state=random_state)\n            for train, val in cv.split(self._train):\n                self._cv_indices.append((self._train[train], self._train[val]))\n        elif isinstance(self._k_fold, Iterable):\n            tmp: pd.Series = pd.Series(self._k_fold).reset_index(drop=True).iloc[self._train]\n            for g in set(tmp):\n                val = tmp[tmp == g].index.values\n                train = tmp[tmp != g].index.values\n                self._cv_indices.append((train, val))\n\n    def _check_input(self, array):\n        if isinstance(array, (list, tuple)):\n            array = np.asarray(array)\n        if not isinstance(array, (np.ndarray, pd.DataFrame, pd.Series)):\n            raise TypeError(\n                f'<arrays> must be list, numpy.ndarray, pandas.DataFrame, or pandas.Series but got {array.__class__}.'\n            )\n        if array.shape[0] != self.size:\n            raise ValueError(\n                f'parameters <arrays> must have size {self.size} for dim 0 but got {array.shape[0]}'\n            )\n        return array\n\n    @staticmethod\n    def _split(array, *idx):\n\n        # all to np.array\n        if isinstance(array, np.ndarray):\n            return [array[i] for i in idx]\n\n        if isinstance(array, (DataFrame, Series)):\n            return [array.iloc[i] for i in idx]\n\n    def cv(self, *arrays, less_for_train=False):\n        \"\"\"\n        Split data with cross-validation.\n\n        Parameters\n        ----------\n        *arrays: DataFrame, Series, ndarray, list\n            Data for split. Must be a Sequence of indexables with same length / shape[0].\n            If None, return the split indices.\n        less_for_train: bool\n            If true, use less data set for train.\n            E.g. ``[1, 2, 3, 4, 5, 6, 7, 8, 9, 0]`` with 5 cv will be split into\n            ``[1, 2]`` and ``[3, 4, 5, 6, 7, 8, 9, 0]``. Usually, ``[1, 2]`` (less one)\n            will be used for val. With ``less_for_train=True``, ``[1, 2]`` will be\n            used for train. Default is ``False``.\n\n        Yields\n        -------\n        tuple\n            list containing split of inputs with cv. if inputs are None, only return\n            the indices of split. if ``test_size`` is 0, test data/index will\n            not return.\n        \"\"\"\n\n        if self._k_fold is None:\n            raise RuntimeError('parameter <cv> must be set')\n\n        for train, val in self._cv_indices:\n            if less_for_train:\n                tmp = train\n                train = val\n                val = tmp\n\n            if len(arrays) == 0:\n                if self._test is not None:\n                    yield train, val, self._test\n                else:\n                    yield train, val\n            else:\n                ret = []\n                for array in arrays:\n                    array = self._check_input(array)\n                    if self._test is not None:\n                        ret.extend(self._split(array, train, val, self._test))\n                    else:\n                        ret.extend(self._split(array, train, val))\n                yield tuple(ret)\n        return\n\n    def split(self, *arrays: Union[np.ndarray, pd.DataFrame, pd.Series]):\n        \"\"\"\n        Split data.\n\n        Parameters\n        ----------\n        *arrays\n            Dataset for split.\n            Size of dim 0 must be equal to :meth:`~Splitter.size`.\n            If None, return the split indices.\n\n        Returns\n        -------\n        tuple\n            List containing split of inputs. if inputs are None, only return\n            the indices of splits. if ``test_size`` is 0, test data/index will\n            not return.\n        \"\"\"\n        if self._test is None:\n            raise RuntimeError('split action is illegal because `test_size` is none')\n\n        if len(arrays) == 0:\n            return self._train, self._test\n\n        ret = []\n        for array in arrays:\n            array = self._check_input(array)\n            ret.extend(self._split(array, self._train, self._test))\n        return tuple(ret)\n"
  },
  {
    "path": "xenonpy/datatools/transform.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport numpy as np\nimport pandas as pd\nfrom pandas import DataFrame, Series\nfrom sklearn.base import BaseEstimator, TransformerMixin\nfrom sklearn.preprocessing import MinMaxScaler, StandardScaler\nfrom sklearn.preprocessing import PowerTransformer as PT\n\nfrom xenonpy.utils import Switch\n\n__all__ = ['PowerTransformer', 'Scaler']\n\n\nclass PowerTransformer(BaseEstimator, TransformerMixin):\n    \"\"\"\n    Box-cox transform.\n    References\n    ----------\n    G.E.P. Box and D.R. Cox, “An Analysis of Transformations”,\n    Journal of the Royal Statistical Society B, 26, 211-252 (1964).\n    \"\"\"\n\n    def __init__(self,\n                 *,\n                 method='yeo-johnson',\n                 standardize=False,\n                 lmd=None,\n                 tolerance=(-np.inf, np.inf),\n                 on_err=None):\n        \"\"\"\n\n        Parameters\n        ----------\n        method: 'yeo-johnson' or 'box-cox'\n            ‘yeo-johnson’ works with positive and negative values\n            ‘box-cox’ only works with strictly positive values\n        standardize: boolean\n            Normalize to standard normal or not.\n            Recommend using a sepearate `standard` function instead of using this option.\n        lmd: list or 1-dim ndarray\n            You might assign each input xs with a specific lmd yourself.\n            Leave None(default) to use a inferred value.\n            See `PowerTransformer` for detials.\n        tolerance: tuple\n            Tolerance of lmd. Set None to accept any.\n            Default is **(-np.inf, np.inf)** but recommend **(-2, 2)** for Box-cox transform\n        on_err: None or str\n            Error handle when try to inference lambda. Can be None or **log**, **nan** or **raise** by string.\n            **log** will return the logarithmic transform of xs that have a min shift to 1.\n            **nan** return ``ndarray`` with shape xs.shape filled with``np.nan``.\n            **raise** raise a FloatingPointError. You can catch it yourself.\n            Default(None) will return the input series without scale transform.\n        .. _PowerTransformer:\n            https://scikit-learn.org/stable/modules/generated/sklearn.preprocessing.PowerTransformer.html#sklearn.preprocessing.PowerTransformer\n        \"\"\"\n        self._tolerance = tolerance\n        self._pt = PT(method=method, standardize=standardize)\n        self._lmd = lmd\n        self._shape = None\n        self._on_err = on_err\n\n    def _check_type(self, x):\n        if isinstance(x, list):\n            x = np.array(x, dtype=np.float)\n        elif isinstance(x, (DataFrame, Series)):\n            x = x.values\n        if not isinstance(x, np.ndarray):\n            raise TypeError(\n                'parameter `X` should be a `DataFrame`, `Series`, `ndarray` or list object '\n                'but got {}'.format(type(x)))\n        if len(x.shape) == 1:\n            x = x.reshape(-1, 1)\n        return x\n\n    def fit(self, x):\n        \"\"\"\n        Parameters\n        ----------\n        X : array-like of shape (n_samples, n_features)\n            The data used to compute the per-feature transformation\n\n        Returns\n        -------\n        self : object\n            Fitted scaler.\n        \"\"\"\n\n        x = self._pt._check_input(self._check_type(x), in_fit=True)\n\n        # forcing constant column vectors to have no transformation (lambda=1)\n        idx = []\n        for i, col in enumerate(x.T):\n            if np.all(col == col[0]):\n                idx.append(i)\n\n        if self._lmd is not None:\n            if isinstance(self._lmd, float):\n                self._pt.lambdas_ = np.array([self._lmd] * x.shape[1])\n            elif x.shape[1] != len(self._lmd):\n                raise ValueError('shape[1] of parameter `X` should be {} but got {}'.format(\n                    x.shape[1], len(self._lmd)))\n            else:\n                self._pt.lambdas_ = np.array(self._lmd)\n        else:\n            self._pt.fit(x)\n\n        if len(idx) > 0:\n            self._pt.lambdas_[idx] = 1.\n\n        return self\n\n    def transform(self, x):\n        ret = self._pt.transform(self._check_type(x))\n        if isinstance(x, pd.DataFrame):\n            return pd.DataFrame(ret, index=x.index, columns=x.columns)\n        return ret\n\n    def inverse_transform(self, x):\n        ret = self._pt.inverse_transform(self._check_type(x))\n        if isinstance(x, pd.DataFrame):\n            return pd.DataFrame(ret, index=x.index, columns=x.columns)\n        return ret\n\n\nclass Scaler(BaseEstimator, TransformerMixin):\n    \"\"\"\n    A value-matrix container for data transform.\n\n    \"\"\"\n\n    def __init__(self):\n        \"\"\"\n\n        Parameters\n        ----------\n        value: DataFrame\n            Inner data.\n        \"\"\"\n        self._scalers = []\n\n    def power_transformer(self, *args, **kwargs):\n        return self._scale(PowerTransformer, *args, **kwargs)\n\n    def box_cox(self, *args, **kwargs):\n        return self._scale(PowerTransformer, method='box-cox', *args, **kwargs)\n\n    def yeo_johnson(self, *args, **kwargs):\n        return self._scale(PowerTransformer, method='yeo-johnson', *args, **kwargs)\n\n    def min_max(self, *args, **kwargs):\n        return self._scale(MinMaxScaler, *args, **kwargs)\n\n    def standard(self, *args, **kwargs):\n        return self._scale(StandardScaler, *args, **kwargs)\n\n    def log(self):\n        return self._scale(PowerTransformer, method='box-cox', lmd=0.)\n\n    def _scale(self, scaler, *args, **kwargs):\n        self._scalers.append(scaler(*args, **kwargs))\n        return self\n\n    def fit(self, x):\n        \"\"\"\n        Compute the minimum and maximum to be used for later scaling.\n        Parameters\n        ----------\n        x: array-like, shape [n_samples, n_features]\n            The data used to compute the per-feature minimum and maximum\n            used for later scaling along the features axis.\n        \"\"\"\n        if len(self._scalers) == 0:\n            return x\n\n        for s in self._scalers:\n            x = s.fit_transform(x)\n        return self\n\n    def fit_transform(self, x, y=None, **fit_params):\n        if len(self._scalers) == 0:\n            return x\n\n        x_ = x\n        for s in self._scalers:\n            x_ = s.fit_transform(x_)\n\n        if isinstance(x, pd.DataFrame):\n            return pd.DataFrame(x_, index=x.index, columns=x.columns)\n        return x_\n\n    def transform(self, x):\n        \"\"\"Scaling features of X according to feature_range.\n        Parameters\n        ----------\n        x : array-like, shape [n_samples, n_features]\n            Input data that will be transformed.\n        \"\"\"\n        if len(self._scalers) == 0:\n            return x\n\n        x_ = x\n        for s in self._scalers:\n            x_ = s.transform(x_)\n\n        if isinstance(x, pd.DataFrame):\n            return pd.DataFrame(x_, index=x.index, columns=x.columns)\n        return x_\n\n    def inverse_transform(self, x):\n        x_ = x\n        for s in self._scalers[::-1]:\n            x_ = s.inverse_transform(x_)\n        if isinstance(x, pd.DataFrame):\n            return pd.DataFrame(x_, index=x.index, columns=x.columns)\n        return x_\n\n    def reset(self):\n        \"\"\"\n        Reset internal data-dependent state of the scaler, if necessary.\n        __init__ parameters are not touched.\n        \"\"\"\n        self._scalers = []\n"
  },
  {
    "path": "xenonpy/descriptor/__init__.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom .cgcnn import *\nfrom .compositions import *\nfrom .fingerprint import *\nfrom .frozen_featurizer import *\nfrom .structure import *\n"
  },
  {
    "path": "xenonpy/descriptor/base.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom abc import ABCMeta, abstractmethod\nfrom collections import defaultdict\nfrom collections.abc import Iterable\nimport itertools\nimport warnings\nfrom multiprocessing import cpu_count\nfrom typing import DefaultDict, List, Sequence, Union, Set\nfrom joblib import Parallel, delayed\n\nimport numpy as np\nimport pandas as pd\nfrom pymatgen.core.composition import Composition as PMGComp\nfrom sklearn.base import TransformerMixin, BaseEstimator\n\nfrom xenonpy.datatools.preset import preset\nfrom xenonpy.utils import TimedMetaClass, Switch\n\n\nclass BaseFeaturizer(BaseEstimator, TransformerMixin, metaclass=ABCMeta):\n    \"\"\"\n    Abstract class to calculate features from :class:`pandas.Series` input data.\n    Each entry can be any format such a compound formula or a pymatgen crystal structure\n    dependent on the featurizer implementation.\n\n    This class have similar structure with `matminer BaseFeaturizer`_ but follow more strict convention.\n    That means you can embed this feature directly into `matminer BaseFeaturizer`_ class implement.::\n\n        class MatFeature(BaseFeaturizer):\n            def featurize(self, *x):\n                return <xenonpy_featurizer>.featurize(*x)\n\n    .. _matminer BaseFeaturizer: https://github.com/hackingmaterials/matminer/blob/master/matminer/featurizers/base_smc.py\n\n    **Using a BaseFeaturizer Class**\n\n    :meth:`BaseFeaturizer` implement :class:`sklearn.base.BaseEstimator` and :class:`sklearn.base.TransformerMixin`\n    that means you can use it in a scikit-learn way.::\n\n        featurizer = SomeFeaturizer()\n        features = featurizer.fit_transform(X)\n\n    You can also employ the featurizer as part of a ScikitLearn Pipeline object.\n    You would then provide your input data as an array to the Pipeline, which would\n    output the featurers as an :class:`pandas.DataFrame`.\n\n    :class:`BaseFeaturizer` also provide you to retrieving proper references for a featurizer.\n    The ``__citations__`` returns a list of papers that should be cited.\n    The ``__authors__`` returns a list of people who wrote the featurizer.\n    Also can be accessed from property ``citations`` and ``citations``.\n\n    **Implementing a New BaseFeaturizer Class**\n\n    These operations must be implemented for each new featurizer:\n\n    - ``featurize`` - Takes a single material as input, returns the features of that material.\n    - ``feature_labels`` - Generates a human-meaningful name for each of the features. **Implement this as property**.\n\n    Also suggest to implement these two **properties**:\n\n    - ``citations`` - Returns a list of citations in BibTeX format.\n    - ``implementors`` - Returns a list of people who contributed writing a paper.\n\n    All options of the featurizer must be set by the ``__init__`` function. All\n    options must be listed as keyword arguments with default values, and the\n    value must be saved as a class attribute with the same name or as a property\n    (e.g., argument `n` should be stored in `self.n`).\n    These requirements are necessary for\n    compatibility with the ``get_params`` and ``set_params`` methods of ``BaseEstimator``,\n    which enable easy interoperability with scikit-learn.\n    :meth:`featurize` must return a list of features in :class:`numpy.ndarray`.\n\n    .. note::\n\n        None of these operations should change the state of the featurizer. I.e.,\n        running each method twice should no produce different results, no class\n        attributes should be changed, running one operation should not affect the\n        output of another.\n\n    \"\"\"\n\n    __authors__ = ['anonymous']\n    __citations__ = ['No citations']\n\n    def __init__(\n        self,\n        n_jobs: int = -1,\n        *,\n        on_errors: str = 'raise',\n        return_type: str = 'any',\n        target_col: Union[List[str], str, None] = None,\n        parallel_verbose: int = 0,\n    ):\n        \"\"\"\n        Parameters\n        ----------\n        n_jobs\n            The number of jobs to run in parallel for both fit and predict. Set -1 to use all cpu cores (default).\n            Inputs ``X`` will be split into some blocks then run on each cpu cores.\n            When set to 0, input X will be treated as a block and pass to ``Featurizer.featurize`` directly.\n            This default parallel implementation does not support pd.DataFrame input,\n            so please make sure you set n_jobs=0 if the input will be pd.DataFrame.\n        on_errors\n            How to handle the exceptions in a feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        return_type\n            Specify the return type.\n            Can be ``any``, ``custom``, ``array`` and ``df``.\n            ``array`` and ``df`` force return type to ``np.ndarray`` and ``pd.DataFrame`` respectively.\n            If ``any`` or ``custom``, the return type depends on multiple factors (see transform function).\n            Default is ``any``\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        parallel_verbose\n            The verbosity level: if non zero, progress messages are printed. Above 50, the output is sent to stdout.\n            The frequency of the messages increases with the verbosity level.\n            If it more than 10, all iterations are reported. Default ``0``.\n        \"\"\"\n        self.return_type = return_type\n        self.target_col = target_col\n        self.n_jobs = n_jobs\n        self.on_errors = on_errors\n        self.parallel_verbose = parallel_verbose\n        self._kwargs = {}\n\n    @property\n    def return_type(self):\n        return self._return_type\n\n    @return_type.setter\n    def return_type(self, val):\n        if val not in {'any', 'array', 'df', 'custom'}:\n            raise ValueError('`return_type` must be `any`, `custom`, `array` or `df`')\n        self._return_type = val\n\n    @property\n    def on_errors(self):\n        return self._on_errors\n\n    @on_errors.setter\n    def on_errors(self, val):\n        if val not in {'nan', 'keep', 'raise'}:\n            raise ValueError('`on_errors` must be `nan`, `keep` or `raise`')\n        self._on_errors = val\n\n    @property\n    def parallel_verbose(self):\n        return self._parallel_verbose\n\n    @parallel_verbose.setter\n    def parallel_verbose(self, val):\n        if not isinstance(val, int):\n            raise ValueError('`parallel_verbose` must be int')\n        self._parallel_verbose = val\n\n    @property\n    def n_jobs(self):\n        return self._n_jobs\n\n    @n_jobs.setter\n    def n_jobs(self, n_jobs):\n        \"\"\"Set the number of threads for this \"\"\"\n        if n_jobs < -1:\n            n_jobs = -1\n        if n_jobs > cpu_count() or n_jobs == -1:\n            self._n_jobs = cpu_count()\n        else:\n            self._n_jobs = n_jobs\n\n    def fit(self, X, y=None, **fit_kwargs):\n        \"\"\"Update the parameters of this featurizer based on available data\n        Args:\n            X - [list of tuples], training data\n        Returns:\n            self\n            \"\"\"\n        return self\n\n    # todo: Dose fit_transform need to pass paras to transform?\n    def fit_transform(self, X, y=None, **fit_params):\n        \"\"\"Fit to data, then transform it.\n\n        Fits transformer to X and y with optional parameters fit_params\n        and returns a transformed version of X.\n\n        Parameters\n        ----------\n        X : numpy array of shape [n_samples, n_features]\n            Training set.\n\n        y : numpy array of shape [n_samples]\n            Target values.\n\n        Returns\n        -------\n        X_new : numpy array of shape [n_samples, n_features_new]\n            Transformed array.\n\n        \"\"\"\n        # non-optimized default implementation; override when a better\n        # method is possible for a given clustering algorithm\n        if y is None:\n            # fit method of arity 1 (unsupervised transformation)\n            return self.fit(X, **fit_params).transform(X, **fit_params)\n        else:\n            # fit method of arity 2 (supervised transformation)\n            return self.fit(X, y, **fit_params).transform(X, **fit_params)\n\n    def transform(self, entries: Sequence, *, return_type=None, target_col=None, **kwargs):\n        \"\"\"\n        Featurize a list of entries.\n        If `featurize` takes multiple inputs, supply inputs as a list of tuples,\n        or use pd.DataFrame with parameter ``target_col`` to specify the column name(s).\n        \n        Args\n        ----\n        entries: list-like or pd.DataFrame\n            A list of entries to be featurized or pd.DataFrame with one specified column.\n            See detail of target_col if entries is pd.DataFrame.\n            Also, make sure n_jobs=0 for pd.DataFrame.\n        return_type: str\n            Specify the return type.\n            Can be ``any``, ``custom``, ``array`` or ``df``.\n            ``array`` or ``df`` forces return type to ``np.ndarray`` or ``pd.DataFrame``, respectively.\n            If ``any``, the return type follow prefixed rules:\n            (1) if input type is pd.Series or pd.DataFrame, returns pd.DataFrame;\n            (2) else if input type is np.array, returns np.array;\n            (3) else if other input type and n_jobs=0, follows the featurize function return;\n            (4) otherwise, return a list of objects (output of featurize function).\n            If ``custom``, the return type depends on the featurize function if n_jobs=0,\n            or the return type is a list of objects (output of featurize function) for other n_jobs values.\n            This is a one-time change that only have effect in the current transformation.\n            Default is ``None`` for using the setting at initialization step.\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            Default is ``None`` for using the setting at initialization step.\n            (see __init__ for more information)\n\n        Returns\n        -------\n            DataFrame\n                features for each entry.\n        \"\"\"\n        self._kwargs = kwargs\n\n        # Check inputs\n        if not isinstance(entries, Iterable):\n            raise TypeError('parameter \"entries\" must be a iterable object')\n\n        # Extract relevant columns for pd.DataFrame input\n        if isinstance(entries, pd.DataFrame):\n            if target_col is None:\n                target_col = self.target_col\n                if target_col is None:\n                    target_col = entries.columns.values\n            entries = entries[target_col]\n\n        # Special case: Empty list\n        if len(entries) is 0:\n            return []\n\n        # Check outputs\n        if return_type not in {None, 'any', 'array', 'df', 'custom'}:\n            raise ValueError('`return_type` must be None, `any`, `custom`, `array` or `df`')\n\n        for c in Switch(self._n_jobs):\n            if c(0):\n                # Run the actual featurization\n                ret = self.featurize(entries, **kwargs)\n                break\n            if isinstance(entries, pd.DataFrame):\n                raise RuntimeError(\"Auto-parallel can not be used when`entries` is `pandas.DataFrame`. \"\n                                   \"Please set `n_jobs` to 0 and implements your algorithm in the `featurize` method\")\n            if c(1):\n                ret = [self._wrapper(x) for x in entries]\n                break\n            if c():\n                ret = Parallel(n_jobs=self._n_jobs,\n                               verbose=self._parallel_verbose)(delayed(self._wrapper)(x) for x in entries)\n\n        try:\n            labels = self.feature_labels\n        except NotImplementedError:\n            labels = None\n\n        if return_type is None:\n            return_type = self.return_type\n\n        if return_type == 'any':\n            if isinstance(entries, (pd.Series, pd.DataFrame)):\n                tmp = pd.DataFrame(ret, index=entries.index, columns=labels)\n                return tmp\n            if isinstance(entries, np.ndarray):\n                return np.array(ret)\n            return ret\n\n        if return_type == 'array':\n            return np.array(ret)\n\n        if return_type == 'df':\n            if isinstance(entries, (pd.Series, pd.DataFrame)):\n                return pd.DataFrame(ret, index=entries.index, columns=labels)\n            return pd.DataFrame(ret, columns=labels)\n\n        if return_type == 'custom':\n            return ret\n\n    def _wrapper(self, x):\n        \"\"\"\n        An exception wrapper for featurize, used in featurize_many and\n        featurize_dataframe. featurize_wrapper changes the behavior of featurize\n        when ignore_errors is True in featurize_many/dataframe.\n        Args:\n             x: input data to featurize (type depends on featurizer).\n        Returns:\n            (list) one or more features.\n        \"\"\"\n        try:\n            # Successful featurization returns nan for an error.\n            if not isinstance(x, (tuple, list, np.ndarray)):\n                return self.featurize(x, **self._kwargs)\n            return self.featurize(*x, **self._kwargs)\n        except Exception as e:\n            if self._on_errors == 'nan':\n                return [np.nan] * len(self.feature_labels)\n            elif self._on_errors == 'keep':\n                return [e] * len(self.feature_labels)\n            else:\n                raise e\n\n    @abstractmethod\n    def featurize(self, *x, **kwargs):\n        \"\"\"\n        Main featurizer function, which has to be implemented\n        in any derived featurizer subclass.\n\n        Args\n        ====\n        x: depends on featurizer\n            input data to featurize.\n\n        Returns\n        =======\n        any: numpy.ndarray\n            one or more features.\n        \"\"\"\n\n    @property\n    @abstractmethod\n    def feature_labels(self):\n        \"\"\"\n        Generate attribute names.\n        Returns:\n            ([str]) attribute labels.\n        \"\"\"\n\n    @property\n    def citations(self):\n        \"\"\"\n        Citation(s) and reference(s) for this feature.\n        Returns:\n            (list) each element should be a string citation,\n                ideally in BibTeX format.\n        \"\"\"\n        return '\\n'.join(self.__citations__)\n\n    @property\n    def authors(self):\n        \"\"\"\n        List of implementors of the feature.\n        Returns:\n            (list) each element should either be a string with author name (e.g.,\n                \"Anubhav Jain\") or a dictionary  with required key \"name\" and other\n                keys like \"email\" or \"institution\" (e.g., {\"name\": \"Anubhav\n                Jain\", \"email\": \"ajain@lbl.gov\", \"institution\": \"LBNL\"}).\n        \"\"\"\n\n        return '\\n'.join(self.__authors__)\n\n\nclass BaseDescriptor(BaseEstimator, TransformerMixin, metaclass=TimedMetaClass):\n    \"\"\"\n    Abstract class to organize featurizers.\n    This class can take list-like[object] or pd.DataFrame as input for transformation or fitting.\n    For pd.DataFrame, if any column name matches any group name,\n    the matched group(s) will be calculated with corresponding column(s);\n    otherwise, the pd.DataFrame will be passed on as is.\n\n    Examples\n    --------\n\n    .. code::\n\n\n        class MyDescriptor(BaseDescriptor):\n\n            def __init__(self, n_jobs=-1):\n                self.descriptor = SomeFeature1(n_jobs)\n                self.descriptor = SomeFeature2(n_jobs)\n                self.descriptor = SomeFeature3(n_jobs)\n                self.descriptor = SomeFeature4(n_jobs)\n\n    \"\"\"\n\n    def __init__(self, *, featurizers: Union[List[str], str] = 'all', on_errors: str = 'raise'):\n        \"\"\"\n\n        Parameters\n        ----------\n        featurizers\n            Specify which Featurizer(s) will be used.\n            Default is 'all'.\n        on_errors\n            How to handle the exceptions in a feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        \"\"\"\n        self.__featurizers__: Set[str] = set()  # featurizers' names\n        self.__featurizer_sets__: DefaultDict[str, List[BaseFeaturizer]] = defaultdict(list)\n        self.featurizers = featurizers\n        self.on_errors = on_errors\n\n    @property\n    def on_errors(self):\n        return self._on_errors\n\n    @on_errors.setter\n    def on_errors(self, val):\n        if val not in {'nan', 'keep', 'raise'}:\n            raise ValueError('`on_errors` must be `nan`, `keep` or `raise`')\n        self._on_errors = val\n        for fea_set in self.__featurizer_sets__.values():\n            for fea in fea_set:\n                fea.on_errors = val\n\n    @property\n    def featurizers(self):\n        return self._featurizers\n\n    @featurizers.setter\n    def featurizers(self, val):\n        if isinstance(val, str):\n            if val != 'all':\n                self._featurizers = (val,)\n            else:\n                self._featurizers = val\n        elif isinstance(val, (tuple, List)):\n            self._featurizers = tuple(val)\n        else:\n            raise ValueError('parameter `featurizers` must be `all`, name of featurizer, or list of name of featurizer')\n\n    @property\n    def elapsed(self):\n        return self._timer.elapsed\n\n    def __setattr__(self, key, value):\n\n        if key == '__featurizer_sets__':\n            if not isinstance(value, defaultdict):\n                raise RuntimeError('Can not set \"self.__featurizer_sets__\" by yourself')\n            super().__setattr__(key, value)\n        if isinstance(value, BaseFeaturizer):\n            if value.__class__.__name__ in self.__featurizers__:\n                raise RuntimeError('Duplicated featurizer <%s>' % value.__class__.__name__)\n            self.__featurizer_sets__[key].append(value)\n            self.__featurizers__.add(value.__class__.__name__)\n        else:\n            super().__setattr__(key, value)\n\n    def __repr__(self):\n        return self.__class__.__name__ + ':\\n' + \\\n               '\\n'.join(\n                   ['  |- %s:\\n  |  |- %s' % (k, '\\n  |  |- '.join(map(lambda s: s.__class__.__name__, v))) for k, v in\n                    self.__featurizer_sets__.items()])\n\n    def _check_input(self, X, y=None, **kwargs):\n\n        def _reformat(x):\n            if x is None:\n                return x\n\n            keys = list(self.__featurizer_sets__.keys())\n            if len(keys) == 1:\n                if isinstance(x, list):\n                    return pd.DataFrame(pd.Series(x), columns=keys)\n\n                if isinstance(x, np.ndarray):\n                    if len(x.shape) == 1:\n                        return pd.DataFrame(x, columns=keys)\n\n                if isinstance(x, pd.Series):\n                    return pd.DataFrame(x.values, columns=keys, index=x.index)\n\n            if isinstance(x, pd.Series):\n                x = pd.DataFrame(x)\n\n            if isinstance(x, pd.DataFrame):\n                tmp = set(x.columns) | set(kwargs.keys())\n                if set(keys).isdisjoint(tmp):\n                    # raise KeyError('name of columns do not match any feature set')\n                    warnings.warn(\n                        'name of columns do not match any feature set, '\n                        'the whole dataframe is applied to all feature sets', UserWarning)\n                    # allow type check later for this special case\n                    return [x]\n                return x\n\n            raise TypeError('you can not ues a array-like input '\n                            'because there are multiple feature sets or the dim of input is not 1')\n\n        return _reformat(X), _reformat(y)\n\n    def _rename(self, **fit_params):\n        for k, v in fit_params.items():\n            if k in self.__featurizer_sets__:\n                self.__featurizer_sets__[v] = self.__featurizer_sets__.pop(k)\n\n    @property\n    def all_featurizers(self):\n        return list(self.__featurizers__)\n\n    def fit(self, X, y=None, **kwargs):\n        if not isinstance(X, Iterable):\n            raise TypeError('parameter \"entries\" must be a iterable object')\n\n        self._rename(**kwargs)\n\n        # assume y is in same format of X (do not cover other cases now)\n        X, y = self._check_input(X, y)\n        if isinstance(X, list):\n            for k, features in self.__featurizer_sets__.items():\n                for f in features:\n                    if self._featurizers != 'all' and f.__class__.__name__ not in self._featurizers:\n                        continue\n                    # assume y is in same format of X\n                    if y is not None:\n                        f.fit(X[0], y[0], **kwargs)\n                    else:\n                        f.fit(X[0], **kwargs)\n        else:\n            for k, features in self.__featurizer_sets__.items():\n                if k in X:\n                    for f in features:\n                        if self._featurizers != 'all' and f.__class__.__name__ not in self._featurizers:\n                            continue\n                        if y is not None and k in y:\n                            f.fit(X[k], y[k], **kwargs)\n                        else:\n                            f.fit(X[k], **kwargs)\n\n        return self\n\n    def transform(self, X, **kwargs):\n        if not isinstance(X, Iterable):\n            raise TypeError('parameter \"entries\" must be a iterable object')\n\n        if len(X) is 0:\n            return None\n\n        if 'return_type' in kwargs:\n            del kwargs['return_type']\n\n        results = []\n\n        X, _ = self._check_input(X, **kwargs)\n        if isinstance(X, list):\n            for k, features in self.__featurizer_sets__.items():\n                # if k in kwargs:\n                #     k = kwargs[k]\n                for f in features:\n                    if self._featurizers != 'all' and f.__class__.__name__ not in self._featurizers:\n                        continue\n                    ret = f.transform(X[0], return_type='df', **kwargs)\n                    results.append(ret)\n        else:\n            for k, features in self.__featurizer_sets__.items():\n                if k in kwargs:\n                    k = kwargs[k]\n                if k in X:\n                    for f in features:\n                        if self._featurizers != 'all' and f.__class__.__name__ not in self._featurizers:\n                            continue\n                        ret = f.transform(X[k], return_type='df', **kwargs)\n                        results.append(ret)\n\n        return pd.concat(results, axis=1)\n\n    @property\n    def feature_labels(self):\n        \"\"\"\n        Generate attribute names.\n        Returns:\n            ([str]) attribute labels.\n        \"\"\"\n\n        if len(self.__featurizers__) == 0:\n            raise NotImplementedError(\"no featurizers\")\n\n        ret = ()\n        for k, features in self.__featurizer_sets__.items():\n            ret += ((k, list(itertools.chain.from_iterable([f.feature_labels for f in features]))),)\n\n        if len(ret) == 1:\n            return ret[0][1]\n        return ret\n\n\nclass BaseCompositionFeaturizer(BaseFeaturizer, metaclass=ABCMeta):\n\n    def __init__(self,\n                 *,\n                 elemental_info: Union[pd.DataFrame, None] = None,\n                 n_jobs: int = -1,\n                 on_errors: str = 'raise',\n                 return_type: str = 'any',\n                 target_col: Union[List[str], str, None] = None):\n        \"\"\"\n        Base class for composition feature.\n        \"\"\"\n\n        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type, target_col=target_col)\n\n        if elemental_info is None:\n            self.elements = preset.elements_completed.copy()\n        else:\n            self.elements = elemental_info\n        self.__authors__ = ['TsumiNa']\n\n\n    def featurize(self, comp):\n        elems_, nums_ = [], []\n        if isinstance(comp, PMGComp):\n            comp = comp.as_dict()\n        for e, n in comp.items():\n            elems_.append(e)\n            nums_.append(n)\n        return self.mix_function(elems_, nums_)\n\n    @abstractmethod\n    def mix_function(self, elems, nums):\n        \"\"\"\n\n        Parameters\n        ----------\n        elems: list\n            Elements in compound.\n        nums: list\n            Number of each element.\n\n        Returns\n        -------\n        descriptor: numpy.ndarray\n        \"\"\"\n"
  },
  {
    "path": "xenonpy/descriptor/cgcnn.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport warnings\n\nimport numpy as np\nimport torch\nfrom pymatgen.core.structure import Structure\n\nfrom xenonpy.datatools import preset\nfrom xenonpy.descriptor.base import BaseFeaturizer\n\n__all__ = ['CrystalGraphFeaturizer']\n\n\nclass CrystalGraphFeaturizer(BaseFeaturizer):\n\n    def __init__(self, *, max_num_nbr=12, radius=8, atom_feature='origin', n_jobs=-1, on_errors='raise',\n                 return_type='any'):\n        \"\"\"\n        This featurizer is a port of the original paper [CGCNN]_.\n\n        .. [CGCNN] `Crystal Graph Convolutional Neural Networks for an Accurate and\n            Interpretable Prediction of Material Properties`__\n        __ https://doi.org/10.1103/PhysRevLett.120.145301\n\n        Parameters\n        ----------\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict.\n            Set -1 to use all cpu cores (default).\n            Inputs ``X`` will be split into some blocks then run on each cpu cores.\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        return_type: str\n            Specific the return type.\n            Can be ``any``, ``array`` and ``df``.\n            ``array`` and ``df`` force return type to ``numpy.ndarray`` and ``pandas.DataFrame`` respectively.\n            If ``any``, the return type dependent on the input type.\n            Default is ``any``\n        \"\"\"\n\n        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type)\n        self.atom_feature = atom_feature\n        self.radius = radius\n        self.max_num_nbr = max_num_nbr\n        self.__implement__ = ['TsumiNa']\n\n    def _atom_feature(self, atom_symbol: str):\n        if self.atom_feature == 'origin':\n            return preset.atom_init.loc[atom_symbol]\n        elif self.atom_feature == 'elements':\n            return preset.elements_completed.loc[atom_symbol]\n        elif callable(self.atom_feature):\n            return self.atom_feature(atom_symbol)\n        else:\n            raise TypeError('bad `atom feature` parameter')\n\n    def edge_features(self, structure: Structure, **kwargs):\n        def expand_distance(distances, dmin=0, step=0.2, var=None):\n            \"\"\"\n            Parameters\n            ----------\n    \n            dmin: float\n              Minimum interatomic distance\n            dmax: float\n              Maximum interatomic distance\n            step: float\n              Step size for the Gaussian filter\n            \"\"\"\n            filter_ = np.arange(dmin, self.radius + step, step)\n            if var is None:\n                var = step\n\n            return np.exp(-(distances[..., np.newaxis] - filter_) ** 2 / var ** 2)\n\n        all_nbrs = structure.get_all_neighbors(self.radius, include_index=True)\n        all_nbrs = [sorted(nbrs, key=lambda x: x[1]) for nbrs in all_nbrs]\n        nbr_fea_idx, nbr_fea = [], []\n        for nbr in all_nbrs:\n            if len(nbr) < self.max_num_nbr:\n                warnings.warn('can not find enough neighbors to build graph. '\n                              'If it happens frequently, consider increase '\n                              'radius.')\n                nbr_fea_idx.append(list(map(lambda x: x[2], nbr)) +\n                                   [0] * (self.max_num_nbr - len(nbr)))\n                nbr_fea.append(list(map(lambda x: x[1], nbr)) +\n                               [self.radius + 1.] * (self.max_num_nbr -\n                                                     len(nbr)))\n            else:\n                nbr_fea_idx.append(list(map(lambda x: x[2],\n                                            nbr[:self.max_num_nbr])))\n                nbr_fea.append(list(map(lambda x: x[1],\n                                        nbr[:self.max_num_nbr])))\n        nbr_fea = np.array(nbr_fea)\n        nbr_fea = expand_distance(nbr_fea)\n        nbr_fea = torch.Tensor(nbr_fea)\n\n        nbr_fea_idx = torch.LongTensor(nbr_fea_idx)\n\n        return nbr_fea, nbr_fea_idx\n\n    def node_features(self, structure: Structure):\n        atom_features = np.vstack([self._atom_feature(s.name) for s in structure.species])\n        return torch.Tensor(atom_features)\n\n    def featurize(self, structure: Structure):\n        return [self.node_features(structure), *self.edge_features(structure)]\n\n    @property\n    def feature_labels(self):\n        return ['atom_feature', 'neighbor_feature', 'neighbor_idx']\n"
  },
  {
    "path": "xenonpy/descriptor/compositions.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom typing import Union, List\n\nimport numpy as np\nimport pandas as pd\n\nfrom xenonpy.descriptor.base import BaseDescriptor, BaseCompositionFeaturizer\n\n__all__ = [\n    'Compositions', 'Counting', 'WeightedAverage', 'WeightedSum', 'WeightedVariance',\n    'HarmonicMean', 'GeometricMean', 'MaxPooling', 'MinPooling'\n]\n\n\nclass Counting(BaseCompositionFeaturizer):\n\n    def __init__(self,\n                 *,\n                 one_hot_vec=False,\n                 n_jobs=-1,\n                 on_errors='raise',\n                 return_type='any',\n                 target_col=None):\n        \"\"\"\n\n        Parameters\n        ----------\n        one_hot_vec : bool\n            Set ``true`` to using one-hot-vector encoding.\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict.\n            Set -1 to use all cpu cores (default).\n            Inputs ``X`` will be split into some blocks then run on each cpu cores.\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        return_type: str\n            Specific the return type.\n            Can be ``any``, ``array`` and ``df``.\n            ``array`` and ``df`` force return type to ``np.ndarray`` and ``pd.DataFrame`` respectively.\n            If ``any``, the return type dependent on the input type.\n            Default is ``any``\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        \"\"\"\n\n        super().__init__(n_jobs=n_jobs,\n                         on_errors=on_errors,\n                         return_type=return_type,\n                         target_col=target_col)\n        self.one_hot_vec = one_hot_vec\n        self._elems = self.elements.index.tolist()\n        self.__authors__ = ['TsumiNa']\n\n    def mix_function(self, elems, nums):\n        vec = np.zeros(len(self._elems), dtype=np.int)\n        for i, e in enumerate(elems):\n            if self.one_hot_vec:\n                vec[self._elems.index(e)] = 1\n            else:\n                vec[self._elems.index(e)] = nums[i]\n\n        return vec\n\n    @property\n    def feature_labels(self):\n        return self._elems\n\n\nclass WeightedAverage(BaseCompositionFeaturizer):\n    \"\"\"\n\n    Parameters\n    ----------\n    elemental_info\n        Elemental level information for each element. For example, the ``atomic number``,\n        ``atomic radius``, and etc. By default (``None``), will use the XenonPy embedded information.\n    n_jobs: int\n        The number of jobs to run in parallel for both fit and predict.\n        Set -1 to use all cpu cores (default).\n        Inputs ``X`` will be split into some blocks then run on each cpu cores.\n    on_errors: string\n        How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n        When 'nan', return a column with ``np.nan``.\n        The length of column corresponding to the number of feature labs.\n        When 'keep', return a column with exception objects.\n        The default is 'raise' which will raise up the exception.\n    return_type: str\n        Specific the return type.\n        Can be ``any``, ``array`` and ``df``.\n        ``array`` and ``df`` force return type to ``np.ndarray`` and ``pd.DataFrame`` respectively.\n        If ``any``, the return type dependent on the input type.\n        Default is ``any``\n    target_col\n        Only relevant when input is pd.DataFrame, otherwise ignored.\n        Specify a single column to be used for transformation.\n        If ``None``, all columns of the pd.DataFrame is used.\n        Default is None.\n    \"\"\"\n\n    def mix_function(self, elems, nums):\n        elems_ = self.elements.loc[elems, :].values\n        w_ = nums / np.sum(nums)\n        return w_.dot(elems_)\n\n    @property\n    def feature_labels(self):\n        return ['ave:' + s for s in self.elements]\n\n\nclass WeightedSum(BaseCompositionFeaturizer):\n    \"\"\"\n\n    Parameters\n    ----------\n    elemental_info\n        Elemental level information for each element. For example, the ``atomic number``,\n        ``atomic radius``, and etc. By default (``None``), will use the XenonPy embedded information.\n    n_jobs: int\n        The number of jobs to run in parallel for both fit and predict.\n        Set -1 to use all cpu cores (default).\n        Inputs ``X`` will be split into some blocks then run on each cpu cores.\n    on_errors: string\n        How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n        When 'nan', return a column with ``np.nan``.\n        The length of column corresponding to the number of feature labs.\n        When 'keep', return a column with exception objects.\n        The default is 'raise' which will raise up the exception.\n    return_type: str\n        Specific the return type.\n        Can be ``any``, ``array`` and ``df``.\n        ``array`` and ``df`` force return type to ``np.ndarray`` and ``pd.DataFrame`` respectively.\n        If ``any``, the return type dependent on the input type.\n        Default is ``any``\n    target_col\n        Only relevant when input is pd.DataFrame, otherwise ignored.\n        Specify a single column to be used for transformation.\n        If ``None``, all columns of the pd.DataFrame is used.\n        Default is None.\n    \"\"\"\n\n    def mix_function(self, elems, nums):\n        elems_ = self.elements.loc[elems, :].values\n        w_ = np.array(nums)\n        return w_.dot(elems_)\n\n    @property\n    def feature_labels(self):\n        return ['sum:' + s for s in self.elements]\n\n\nclass GeometricMean(BaseCompositionFeaturizer):\n    \"\"\"\n\n    Parameters\n    ----------\n    elemental_info\n        Elemental level information for each element. For example, the ``atomic number``,\n        ``atomic radius``, and etc. By default (``None``), will use the XenonPy embedded information.\n    n_jobs: int\n        The number of jobs to run in parallel for both fit and predict.\n        Set -1 to use all cpu cores (default).\n        Inputs ``X`` will be split into some blocks then run on each cpu cores.\n    on_errors: string\n        How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n        When 'nan', return a column with ``np.nan``.\n        The length of column corresponding to the number of feature labs.\n        When 'keep', return a column with exception objects.\n        The default is 'raise' which will raise up the exception.\n    return_type: str\n        Specific the return type.\n        Can be ``any``, ``array`` and ``df``.\n        ``array`` and ``df`` force return type to ``np.ndarray`` and ``pd.DataFrame`` respectively.\n        If ``any``, the return type dependent on the input type.\n        Default is ``any``\n    target_col\n        Only relevant when input is pd.DataFrame, otherwise ignored.\n        Specify a single column to be used for transformation.\n        If ``None``, all columns of the pd.DataFrame is used.\n        Default is None.\n    \"\"\"\n\n    def mix_function(self, elems, nums):\n        elems_ = self.elements.loc[elems, :].values\n        w_ = np.array(nums).reshape(-1, 1)\n        tmp = elems_**w_\n        return np.power(tmp.prod(axis=0), 1 / sum(w_))\n\n    @property\n    def feature_labels(self):\n        return ['gmean:' + s for s in self.elements]\n\n\nclass HarmonicMean(BaseCompositionFeaturizer):\n    \"\"\"\n\n    Parameters\n    ----------\n    elemental_info\n        Elemental level information for each element. For example, the ``atomic number``,\n        ``atomic radius``, and etc. By default (``None``), will use the XenonPy embedded information.\n    n_jobs: int\n        The number of jobs to run in parallel for both fit and predict.\n        Set -1 to use all cpu cores (default).\n        Inputs ``X`` will be split into some blocks then run on each cpu cores.\n    on_errors: string\n        How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n        When 'nan', return a column with ``np.nan``.\n        The length of column corresponding to the number of feature labs.\n        When 'keep', return a column with exception objects.\n        The default is 'raise' which will raise up the exception.\n    return_type: str\n        Specific the return type.\n        Can be ``any``, ``array`` and ``df``.\n        ``array`` and ``df`` force return type to ``np.ndarray`` and ``pd.DataFrame`` respectively.\n        If ``any``, the return type dependent on the input type.\n        Default is ``any``\n    target_col\n        Only relevant when input is pd.DataFrame, otherwise ignored.\n        Specify a single column to be used for transformation.\n        If ``None``, all columns of the pd.DataFrame is used.\n        Default is None.\n    \"\"\"\n\n    def mix_function(self, elems, nums):\n        elems_ = 1 / self.elements.loc[elems, :].values\n        w_ = np.array(nums)\n        tmp = w_.dot(elems_)\n\n        return sum(w_) / tmp\n\n    @property\n    def feature_labels(self):\n        return ['hmean:' + s for s in self.elements]\n\n\nclass WeightedVariance(BaseCompositionFeaturizer):\n    \"\"\"\n\n    Parameters\n    ----------\n    elemental_info\n        Elemental level information for each element. For example, the ``atomic number``,\n        ``atomic radius``, and etc. By default (``None``), will use the XenonPy embedded information.\n    n_jobs: int\n        The number of jobs to run in parallel for both fit and predict.\n        Set -1 to use all cpu cores (default).\n        Inputs ``X`` will be split into some blocks then run on each cpu cores.\n    on_errors: string\n        How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n        When 'nan', return a column with ``np.nan``.\n        The length of column corresponding to the number of feature labs.\n        When 'keep', return a column with exception objects.\n        The default is 'raise' which will raise up the exception.\n    return_type: str\n        Specific the return type.\n        Can be ``any``, ``array`` and ``df``.\n        ``array`` and ``df`` force return type to ``np.ndarray`` and ``pd.DataFrame`` respectively.\n        If ``any``, the return type dependent on the input type.\n        Default is ``any``\n    target_col\n        Only relevant when input is pd.DataFrame, otherwise ignored.\n        Specify a single column to be used for transformation.\n        If ``None``, all columns of the pd.DataFrame is used.\n        Default is None.\n    \"\"\"\n\n    def mix_function(self, elems, nums):\n        elems_ = self.elements.loc[elems, :].values\n        w_ = nums / np.sum(nums)\n        mean_ = w_.dot(elems_)\n        var_ = elems_ - mean_\n        return w_.dot(var_**2)\n\n    @property\n    def feature_labels(self):\n        return ['var:' + s for s in self.elements]\n\n\nclass MaxPooling(BaseCompositionFeaturizer):\n    \"\"\"\n\n    Parameters\n    ----------\n    elemental_info\n        Elemental level information for each element. For example, the ``atomic number``,\n        ``atomic radius``, and etc. By default (``None``), will use the XenonPy embedded information.\n    n_jobs: int\n        The number of jobs to run in parallel for both fit and predict.\n        Set -1 to use all cpu cores (default).\n        Inputs ``X`` will be split into some blocks then run on each cpu cores.\n    on_errors: string\n        How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n        When 'nan', return a column with ``np.nan``.\n        The length of column corresponding to the number of feature labs.\n        When 'keep', return a column with exception objects.\n        The default is 'raise' which will raise up the exception.\n    return_type: str\n        Specific the return type.\n        Can be ``any``, ``array`` and ``df``.\n        ``array`` and ``df`` force return type to ``np.ndarray`` and ``pd.DataFrame`` respectively.\n        If ``any``, the return type dependent on the input type.\n        Default is ``any``\n    target_col\n        Only relevant when input is pd.DataFrame, otherwise ignored.\n        Specify a single column to be used for transformation.\n        If ``None``, all columns of the pd.DataFrame is used.\n        Default is None.\n    \"\"\"\n\n    def mix_function(self, elems, _):\n        elems_ = self.elements.loc[elems, :]\n        return elems_.max().values\n\n    @property\n    def feature_labels(self):\n        return ['max:' + s for s in self.elements]\n\n\nclass MinPooling(BaseCompositionFeaturizer):\n    \"\"\"\n\n    Parameters\n    ----------\n    elemental_info\n        Elemental level information for each element. For example, the ``atomic number``,\n        ``atomic radius``, and etc. By default (``None``), will use the XenonPy embedded information.\n    n_jobs: int\n        The number of jobs to run in parallel for both fit and predict.\n        Set -1 to use all cpu cores (default).\n        Inputs ``X`` will be split into some blocks then run on each cpu cores.\n    on_errors: string\n        How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n        When 'nan', return a column with ``np.nan``.\n        The length of column corresponding to the number of feature labs.\n        When 'keep', return a column with exception objects.\n        The default is 'raise' which will raise up the exception.\n    return_type: str\n        Specific the return type.\n        Can be ``any``, ``array`` and ``df``.\n        ``array`` and ``df`` force return type to ``np.ndarray`` and ``pd.DataFrame`` respectively.\n        If ``any``, the return type dependent on the input type.\n        Default is ``any``\n    target_col\n        Only relevant when input is pd.DataFrame, otherwise ignored.\n        Specify a single column to be used for transformation.\n        If ``None``, all columns of the pd.DataFrame is used.\n        Default is None.\n    \"\"\"\n\n    def mix_function(self, elems, _):\n        elems_ = self.elements.loc[elems, :]\n        return elems_.min().values\n\n    @property\n    def feature_labels(self):\n        return ['min:' + s for s in self.elements]\n\n\nclass Compositions(BaseDescriptor):\n    \"\"\"\n    Calculate elemental descriptors from compound's composition.\n    \"\"\"\n\n    classic = ['WeightedAverage', 'WeightedSum', 'WeightedVariance', 'MaxPooling', 'MinPooling']\n\n    def __init__(self,\n                 *,\n                 elemental_info: Union[pd.DataFrame, None] = None,\n                 n_jobs: int = -1,\n                 featurizers: Union[str, List[str]] = 'classic',\n                 on_errors: str = 'nan'):\n        \"\"\"\n\n        Parameters\n        ----------\n        elemental_info\n            Elemental level information for each element. For example, the ``atomic number``,\n            ``atomic radius``, and etc. By default (``None``), will use the XenonPy embedded information.\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict.\n            Set -1 to use all cpu cores (default).\n            Inputs ``X`` will be split into some blocks then run on each cpu cores.\n        featurizers: Union[str, List[str]]\n            Name of featurizers that will be used.\n            Set to `classic` to be compatible with the old version.\n            This is equal to set ``featurizers=['WeightedAverage', 'WeightedSum',\n            'WeightedVariance', 'MaxPooling', 'MinPooling']``.\n            Default is 'all'.\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'nan' which will raise up the exception.\n        \"\"\"\n\n        if featurizers == 'classic':\n            super().__init__(featurizers=self.classic)\n        else:\n            super().__init__(featurizers=featurizers)\n\n        self.composition = Counting(n_jobs=n_jobs, on_errors=on_errors)\n        self.composition = WeightedAverage(n_jobs=n_jobs,\n                                           on_errors=on_errors,\n                                           elemental_info=elemental_info)\n        self.composition = WeightedSum(n_jobs=n_jobs,\n                                       on_errors=on_errors,\n                                       elemental_info=elemental_info)\n        self.composition = WeightedVariance(n_jobs=n_jobs,\n                                            on_errors=on_errors,\n                                            elemental_info=elemental_info)\n        self.composition = GeometricMean(n_jobs=n_jobs,\n                                         on_errors=on_errors,\n                                         elemental_info=elemental_info)\n        self.composition = HarmonicMean(n_jobs=n_jobs,\n                                        on_errors=on_errors,\n                                        elemental_info=elemental_info)\n        self.composition = MaxPooling(n_jobs=n_jobs,\n                                      on_errors=on_errors,\n                                      elemental_info=elemental_info)\n        self.composition = MinPooling(n_jobs=n_jobs,\n                                      on_errors=on_errors,\n                                      elemental_info=elemental_info)\n"
  },
  {
    "path": "xenonpy/descriptor/fingerprint.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport numpy as np\nfrom rdkit import Chem\nfrom rdkit.Chem import Descriptors as ChemDesc\nfrom rdkit.Chem import MACCSkeys as MAC\nfrom rdkit.Chem import rdMolDescriptors as rdMol\nfrom rdkit.Chem import rdmolops as rdm\nfrom rdkit.Chem.rdMHFPFingerprint import MHFPEncoder\nfrom rdkit.ML.Descriptors import MoleculeDescriptors\n\nfrom scipy.sparse import coo_matrix\n\nfrom xenonpy.descriptor.base import BaseDescriptor, BaseFeaturizer\n\n__all__ = ['RDKitFP', 'AtomPairFP', 'TopologicalTorsionFP', 'MACCS', 'FCFP', 'ECFP', 'PatternFP', 'LayeredFP',\n           'MHFP', 'DescriptorFeature', 'Fingerprints']\n\n\ndef count_fp(fp, dim=2**10):\n    tmp = fp.GetNonzeroElements()\n    return coo_matrix((list(tmp.values()), (np.repeat(0, len(tmp)), [i % dim for i in tmp.keys()])),\n                      shape=(1, dim)).toarray().flatten()\n\n\nclass RDKitFP(BaseFeaturizer):\n\n    def __init__(self, n_jobs=-1, *, n_bits=2048, bit_per_entry=None, counting=False,\n                 input_type='mol', on_errors='raise', return_type='any', target_col=None):\n        \"\"\"\n        RDKit fingerprint.\n\n        Parameters\n        ----------\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict.\n            Can be -1 or # of cups. Set -1 to use all cpu cores (default).\n        n_bits: int\n            Fingerprint size.\n        bit_per_entry: int\n            Number of bits used to represent a single entry (only for non-counting case).\n            Default value follows rdkit default.\n        counting: boolean\n            Record counts of the entries instead of bits only.\n        input_type: string\n            Set the specific type of transform input.\n            Set to ``mol`` (default) to ``rdkit.Chem.rdchem.Mol`` objects as input.\n            When set to ``smlies``, ``transform`` method can use a SMILES list as input.\n            Set to ``any`` to use both.\n            If input is SMILES, ``Chem.MolFromSmiles`` function will be used inside.\n            for ``None`` returns, a ``ValueError`` exception will be raised.\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        \"\"\"\n        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type, target_col=target_col)\n        self.input_type = input_type\n        self.n_bits = n_bits\n        if bit_per_entry is None:\n            self.bit_per_entry = 2\n        else:\n            self.bit_per_entry = bit_per_entry\n        self.counting = counting\n        self.__authors__ = ['Stephen Wu', 'TsumiNa']\n\n    def featurize(self, x):\n        if self.input_type == 'smiles':\n            x_ = x\n            x = Chem.MolFromSmiles(x)\n            if x is None:\n                raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        if self.input_type == 'any':\n            if not isinstance(x, Chem.rdchem.Mol):\n                x_ = x\n                x = Chem.MolFromSmiles(x)\n                if x is None:\n                    raise ValueError('cannot convert Mol from SMILES %s' % x_)\n\n        if self.counting:\n            return count_fp(rdm.UnfoldedRDKFingerprintCountBased(x), dim=self.n_bits)\n        else:\n            return list(Chem.RDKFingerprint(x, fpSize=self.n_bits, nBitsPerHash=self.bit_per_entry))\n\n    @property\n    def feature_labels(self):\n        if self.counting:\n            return [\"rdkit_c:\" + str(i) for i in range(self.n_bits)]\n        else:\n            return [\"rdkit:\" + str(i) for i in range(self.n_bits)]\n\n\nclass AtomPairFP(BaseFeaturizer):\n\n    def __init__(self, n_jobs=-1, *, n_bits=2048, bit_per_entry=None, counting=False,\n                 input_type='mol', on_errors='raise', return_type='any', target_col=None):\n        \"\"\"\n        Atom Pair fingerprints.\n        Returns the atom-pair fingerprint for a molecule.The algorithm used is described here:\n        R.E. Carhart, D.H. Smith, R. Venkataraghavan;\n        \"Atom Pairs as Molecular Features in Structure-Activity Studies: Definition and Applications\"\n        JCICS 25, 64-73 (1985).\n        This is currently just in binary bits with fixed length after folding.\n\n        Parameters\n        ----------\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict.\n            Can be -1 or # of cups. Set -1 to use all cpu cores (default).\n        n_bits: int\n           Fixed bit length based on folding.\n        bit_per_entry: int\n            Number of bits used to represent a single entry (only for non-counting case).\n            Default value follows rdkit default.\n        counting: boolean\n            Record counts of the entries instead of bits only.\n        input_type: string\n            Set the specific type of transform input.\n            Set to ``mol`` (default) to ``rdkit.Chem.rdchem.Mol`` objects as input.\n            When set to ``smlies``, ``transform`` method can use a SMILES list as input.\n            Set to ``any`` to use both.\n            If input is SMILES, ``Chem.MolFromSmiles`` function will be used inside.\n            for ``None`` returns, a ``ValueError`` exception will be raised.\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        \"\"\"\n        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type, target_col=target_col)\n        self.input_type = input_type\n        self.n_bits = n_bits\n        if bit_per_entry is None:\n            self.bit_per_entry = 4\n        else:\n            self.bit_per_entry = bit_per_entry\n        self.counting = counting\n        self.__authors__ = ['Stephen Wu', 'TsumiNa']\n\n    def featurize(self, x):\n        if self.input_type == 'smiles':\n            x_ = x\n            x = Chem.MolFromSmiles(x)\n            if x is None:\n                raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        if self.input_type == 'any':\n            if not isinstance(x, Chem.rdchem.Mol):\n                x_ = x\n                x = Chem.MolFromSmiles(x)\n                if x is None:\n                    raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        if self.counting:\n            return count_fp(rdMol.GetHashedAtomPairFingerprint(x, nBits=self.n_bits), dim=self.n_bits)\n        else:\n            return list(rdMol.GetHashedAtomPairFingerprintAsBitVect(x, nBits=self.n_bits,\n                                                                    nBitsPerEntry=self.bit_per_entry))\n\n    @property\n    def feature_labels(self):\n        if self.counting:\n            return ['apfp_c:' + str(i) for i in range(self.n_bits)]\n        else:\n            return ['apfp:' + str(i) for i in range(self.n_bits)]\n\n\nclass TopologicalTorsionFP(BaseFeaturizer):\n\n    def __init__(self, n_jobs=-1, *, n_bits=2048, bit_per_entry=None, counting=False,\n                 input_type='mol', on_errors='raise', return_type='any', target_col=None):\n        \"\"\"\n        Topological Torsion fingerprints.\n        Returns the topological-torsion fingerprint for a molecule.\n        This is currently just in binary bits with fixed length after folding.\n\n        Parameters\n        ----------\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict.\n            Can be -1 or # of cups. Set -1 to use all cpu cores (default).\n        n_bits: int\n           Fixed bit length based on folding.\n        bit_per_entry: int\n            Number of bits used to represent a single entry (only for non-counting case).\n            Default value follows rdkit default.\n        counting: boolean\n            Record counts of the entries instead of bits only.\n        input_type: string\n            Set the specific type of transform input.\n            Set to ``mol`` (default) to ``rdkit.Chem.rdchem.Mol`` objects as input.\n            When set to ``smlies``, ``transform`` method can use a SMILES list as input.\n            Set to ``any`` to use both.\n            If input is SMILES, ``Chem.MolFromSmiles`` function will be used inside.\n            for ``None`` returns, a ``ValueError`` exception will be raised.\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        \"\"\"\n        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type, target_col=target_col)\n        self.input_type = input_type\n        self.n_bits = n_bits\n        if bit_per_entry is None:\n            self.bit_per_entry = 4\n        else:\n            self.bit_per_entry = bit_per_entry\n        self.counting = counting\n        self.__authors__ = ['Stephen Wu', 'TsumiNa']\n\n    def featurize(self, x):\n        if self.input_type == 'smiles':\n            x_ = x\n            x = Chem.MolFromSmiles(x)\n            if x is None:\n                raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        if self.input_type == 'any':\n            if not isinstance(x, Chem.rdchem.Mol):\n                x_ = x\n                x = Chem.MolFromSmiles(x)\n                if x is None:\n                    raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        if self.counting:\n            return count_fp(rdMol.GetHashedTopologicalTorsionFingerprint(x, nBits=self.n_bits), dim=self.n_bits)\n        else:\n            return list(rdMol.GetHashedTopologicalTorsionFingerprintAsBitVect(x, nBits=self.n_bits,\n                                                                              nBitsPerEntry=self.bit_per_entry))\n\n    @property\n    def feature_labels(self):\n        if self.counting:\n            return ['ttfp_c:' + str(i) for i in range(self.n_bits)]\n        else:\n            return ['ttfp:' + str(i) for i in range(self.n_bits)]\n\n\nclass MACCS(BaseFeaturizer):\n\n    def __init__(self, n_jobs=-1,\n                 *, input_type='mol', on_errors='raise', return_type='any', target_col=None):\n        \"\"\"\n        The MACCS keys for a molecule. The result is a 167-bit vector. There are 166 public keys,\n        but to maintain consistency with other software packages they are numbered from 1.\n\n        Parameters\n        ----------\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict.\n            Can be -1 or # of cups. Set -1 to use all cpu cores (default).\n        input_type: string\n            Set the specific type of transform input.\n            Set to ``mol`` (default) to ``rdkit.Chem.rdchem.Mol`` objects as input.\n            When set to ``smlies``, ``transform`` method can use a SMILES list as input.\n            Set to ``any`` to use both.\n            If input is SMILES, ``Chem.MolFromSmiles`` function will be used inside.\n            for ``None`` returns, a ``ValueError`` exception will be raised.\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        \"\"\"\n        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type, target_col=target_col)\n        self.input_type = input_type\n        self.__authors__ = ['Stephen Wu', 'TsumiNa']\n\n    def featurize(self, x):\n        if self.input_type == 'smiles':\n            x_ = x\n            x = Chem.MolFromSmiles(x)\n            if x is None:\n                raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        if self.input_type == 'any':\n            if not isinstance(x, Chem.rdchem.Mol):\n                x_ = x\n                x = Chem.MolFromSmiles(x)\n                if x is None:\n                    raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        return list(MAC.GenMACCSKeys(x))\n\n    @property\n    def feature_labels(self):\n        return ['maccs:' + str(i) for i in range(167)]\n\n\nclass FCFP(BaseFeaturizer):\n\n    def __init__(self, n_jobs=-1, *, radius=3, n_bits=2048, counting=False,\n                 input_type='mol', on_errors='raise', return_type='any', target_col=None):\n        \"\"\"\n        Morgan (Circular) fingerprints + feature-based (FCFP)\n        The algorithm used is described in the paper Rogers, D. & Hahn, M. Extended-Connectivity Fingerprints.\n        JCIM 50:742-54 (2010)\n\n        Parameters\n        ----------\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict.\n            Can be -1 or # of cups. Set -1 to use all cpu cores (default).\n        radius: int\n            The radius parameter in the Morgan fingerprints, which is roughly half of the diameter parameter in FCFP,\n            i.e., radius=2 is roughly equivalent to FCFP4.\n        n_bits: int\n            Fixed bit length based on folding.\n        counting: boolean\n            Record counts of the entries instead of bits only.\n        input_type: string\n            Set the specific type of transform input.\n            Set to ``mol`` (default) to ``rdkit.Chem.rdchem.Mol`` objects as input.\n            When set to ``smlies``, ``transform`` method can use a SMILES list as input.\n            Set to ``any`` to use both.\n            If input is SMILES, ``Chem.MolFromSmiles`` function will be used inside.\n            for ``None`` returns, a ``ValueError`` exception will be raised.\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        \"\"\"\n        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type, target_col=target_col)\n        self.input_type = input_type\n        self.radius = radius\n        self.n_bits = n_bits\n        self.counting = counting\n        self.__authors__ = ['Stephen Wu', 'TsumiNa']\n        # self.arg = arg # arg[0] = radius, arg[1] = bit length\n\n    def featurize(self, x):\n        if self.input_type == 'smiles':\n            x_ = x\n            x = Chem.MolFromSmiles(x)\n            if x is None:\n                raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        if self.input_type == 'any':\n            if not isinstance(x, Chem.rdchem.Mol):\n                x_ = x\n                x = Chem.MolFromSmiles(x)\n                if x is None:\n                    raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        if self.counting:\n            return count_fp(rdMol.GetHashedMorganFingerprint(\n                x, radius=self.radius, nBits=self.n_bits, useFeatures=True), dim=self.n_bits)\n        else:\n            return list(rdMol.GetMorganFingerprintAsBitVect(\n                x, radius=self.radius, nBits=self.n_bits, useFeatures=True))\n\n    @property\n    def feature_labels(self):\n        if self.counting:\n            return [f'fcfp{self.radius * 2}_c:' + str(i) for i in range(self.n_bits)]\n        else:\n            return [f'fcfp{self.radius * 2}:' + str(i) for i in range(self.n_bits)]\n\n\nclass ECFP(BaseFeaturizer):\n\n    def __init__(self, n_jobs=-1, *, radius=3, n_bits=2048, counting=False,\n                 input_type='mol', on_errors='raise', return_type='any', target_col=None):\n        \"\"\"\n        Morgan (Circular) fingerprints (ECFP)\n        The algorithm used is described in the paper Rogers, D. & Hahn, M. Extended-Connectivity Fingerprints.\n        JCIM 50:742-54 (2010)\n\n        Parameters\n        ----------\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict.\n            Can be -1 or # of cups. Set -1 to use all cpu cores (default).\n        radius: int\n            The radius parameter in the Morgan fingerprints, which is roughly half of the diameter parameter in ECFP,\n            i.e., radius=2 is roughly equivalent to ECFP4.\n        n_bits: int\n            Fixed bit length based on folding.\n        counting: boolean\n            Record counts of the entries instead of bits only.\n        input_type: string\n            Set the specific type of transform input.\n            Set to ``mol`` (default) to ``rdkit.Chem.rdchem.Mol`` objects as input.\n            When set to ``smlies``, ``transform`` method can use a SMILES list as input.\n            Set to ``any`` to use both.\n            If input is SMILES, ``Chem.MolFromSmiles`` function will be used inside.\n            for ``None`` returns, a ``ValueError`` exception will be raised.\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        \"\"\"\n        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type, target_col=target_col)\n        self.input_type = input_type\n        self.radius = radius\n        self.n_bits = n_bits\n        self.counting = counting\n        self.__authors__ = ['Stephen Wu', 'TsumiNa']\n        # self.arg = arg # arg[0] = radius, arg[1] = bit length\n\n    def featurize(self, x):\n        if self.input_type == 'smiles':\n            x_ = x\n            x = Chem.MolFromSmiles(x)\n            if x is None:\n                raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        if self.input_type == 'any':\n            if not isinstance(x, Chem.rdchem.Mol):\n                x_ = x\n                x = Chem.MolFromSmiles(x)\n                if x is None:\n                    raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        if self.counting:\n            return count_fp(rdMol.GetHashedMorganFingerprint(x, radius=self.radius,\n                                                             nBits=self.n_bits), dim=self.n_bits)\n        else:\n            return list(rdMol.GetMorganFingerprintAsBitVect(x, radius=self.radius, nBits=self.n_bits))\n\n    @property\n    def feature_labels(self):\n        if self.counting:\n            return [f'ecfp{self.radius * 2}_c:' + str(i) for i in range(self.n_bits)]\n        else:\n            return [f'ecfp{self.radius * 2}:' + str(i) for i in range(self.n_bits)]\n\n\nclass PatternFP(BaseFeaturizer):\n\n    def __init__(self, n_jobs=-1, *, n_bits=2048,\n                 input_type='mol', on_errors='raise', return_type='any', target_col=None):\n        \"\"\"\n        A fingerprint designed to be used in substructure screening using SMARTS patterns (unique in RDKit).\n\n        Parameters\n        ----------\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict.\n            Can be -1 or # of cups. Set -1 to use all cpu cores (default).\n        n_bits: int\n           Fixed bit length based on folding.\n        input_type: string\n            Set the specific type of transform input.\n            Set to ``mol`` (default) to ``rdkit.Chem.rdchem.Mol`` objects as input.\n            When set to ``smlies``, ``transform`` method can use a SMILES list as input.\n            Set to ``any`` to use both.\n            If input is SMILES, ``Chem.MolFromSmiles`` function will be used inside.\n            for ``None`` returns, a ``ValueError`` exception will be raised.\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        \"\"\"\n        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type, target_col=target_col)\n        self.input_type = input_type\n        self.n_bits = n_bits\n        self.__authors__ = ['Stephen Wu', 'TsumiNa']\n\n    def featurize(self, x):\n        if self.input_type == 'smiles':\n            x_ = x\n            x = Chem.MolFromSmiles(x)\n            if x is None:\n                raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        if self.input_type == 'any':\n            if not isinstance(x, Chem.rdchem.Mol):\n                x_ = x\n                x = Chem.MolFromSmiles(x)\n                if x is None:\n                    raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        return list(rdm.PatternFingerprint(x, fpSize=self.n_bits))\n\n    @property\n    def feature_labels(self):\n        return ['patfp:' + str(i) for i in range(self.n_bits)]\n\n\nclass LayeredFP(BaseFeaturizer):\n\n    def __init__(self, n_jobs=-1, *, n_bits=2048,\n                 input_type='mol', on_errors='raise', return_type='any', target_col=None):\n        \"\"\"\n        A substructure fingerprint that is more complex than PatternFP (unique in RDKit).\n\n        Parameters\n        ----------\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict.\n            Can be -1 or # of cups. Set -1 to use all cpu cores (default).\n        n_bits: int\n           Fixed bit length based on folding.\n        input_type: string\n            Set the specific type of transform input.\n            Set to ``mol`` (default) to ``rdkit.Chem.rdchem.Mol`` objects as input.\n            When set to ``smlies``, ``transform`` method can use a SMILES list as input.\n            Set to ``any`` to use both.\n            If input is SMILES, ``Chem.MolFromSmiles`` function will be used inside.\n            for ``None`` returns, a ``ValueError`` exception will be raised.\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        \"\"\"\n        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type, target_col=target_col)\n        self.input_type = input_type\n        self.n_bits = n_bits\n        self.__authors__ = ['Stephen Wu', 'TsumiNa']\n\n    def featurize(self, x):\n        if self.input_type == 'smiles':\n            x_ = x\n            x = Chem.MolFromSmiles(x)\n            if x is None:\n                raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        if self.input_type == 'any':\n            if not isinstance(x, Chem.rdchem.Mol):\n                x_ = x\n                x = Chem.MolFromSmiles(x)\n                if x is None:\n                    raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        return list(rdm.LayeredFingerprint(x, fpSize=self.n_bits))\n\n    @property\n    def feature_labels(self):\n        return ['layfp:' + str(i) for i in range(self.n_bits)]\n\n\nclass MHFP(BaseFeaturizer):\n\n    def __init__(self, n_jobs=1, *, radius=3, n_bits=2048,\n                 input_type='mol', on_errors='raise', return_type='any', target_col=None):\n        \"\"\"\n        Variation from the MinHash fingerprint, which is based on ECFP with\n        locality sensitive hashing to increase compactness of information during hashing.\n        The algorithm used is described in the paper\n        Probst, D. & Reymond, J.-L., A probabilistic molecular fingerprint for big data settings.\n        Journal of Cheminformatics, 10:66 (2018)\n\n        Note that MHFP currently does not support parallel computing, so please fix n_jobs to 1.\n\n        Parameters\n        ----------\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict.\n            Can be -1 or # of cups. Set -1 to use all cpu cores (default).\n        radius: int\n            The radius parameter in the SECFP(RDKit version) fingerprints,\n            which is roughly half of the diameter parameter in ECFP,\n            i.e., radius=2 is roughly equivalent to ECFP4.\n        n_bits: int\n           Fixed bit length based on folding.\n        input_type: string\n            Set the specific type of transform input.\n            Set to ``mol`` (default) to ``rdkit.Chem.rdchem.Mol`` objects as input.\n            When set to ``smlies``, ``transform`` method can use a SMILES list as input.\n            Set to ``any`` to use both.\n            If input is SMILES, ``Chem.MolFromSmiles`` function will be used inside.\n            for ``None`` returns, a ``ValueError`` exception will be raised.\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        \"\"\"\n        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type, target_col=target_col)\n        self.input_type = input_type\n        self.radius = radius\n        self.n_bits = n_bits\n        self.mhfp = MHFPEncoder()\n        self.__authors__ = ['Stephen Wu', 'TsumiNa']\n\n    def featurize(self, x):\n        if self.input_type == 'smiles':\n            x_ = x\n            x = Chem.MolFromSmiles(x)\n            if x is None:\n                raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        if self.input_type == 'any':\n            if not isinstance(x, Chem.rdchem.Mol):\n                x_ = x\n                x = Chem.MolFromSmiles(x)\n                if x is None:\n                    raise ValueError('cannot convert Mol from SMILES %s' % x_)\n        return list(self.mhfp.EncodeSECFPMol(x, radius=self.radius, length=self.n_bits))\n\n    @property\n    def feature_labels(self):\n        return [f'secfp{self.radius * 2}:' + str(i) for i in range(self.n_bits)]\n\n\nclass DescriptorFeature(BaseFeaturizer):\n\n    classic = ['MaxEStateIndex', 'MinEStateIndex', 'MaxAbsEStateIndex', 'MinAbsEStateIndex', 'qed', 'MolWt',\n               'HeavyAtomMolWt', 'ExactMolWt', 'NumValenceElectrons', 'NumRadicalElectrons', 'MaxPartialCharge',\n               'MinPartialCharge', 'MaxAbsPartialCharge', 'MinAbsPartialCharge', 'FpDensityMorgan1', 'FpDensityMorgan2',\n               'FpDensityMorgan3', 'BalabanJ', 'BertzCT', 'Chi0', 'Chi0n', 'Chi0v', 'Chi1', 'Chi1n', 'Chi1v', 'Chi2n',\n               'Chi2v', 'Chi3n', 'Chi3v', 'Chi4n', 'Chi4v', 'HallKierAlpha', 'Ipc', 'Kappa1', 'Kappa2', 'Kappa3',\n               'LabuteASA', 'PEOE_VSA1', 'PEOE_VSA10', 'PEOE_VSA11', 'PEOE_VSA12', 'PEOE_VSA13', 'PEOE_VSA14',\n               'PEOE_VSA2', 'PEOE_VSA3', 'PEOE_VSA4', 'PEOE_VSA5', 'PEOE_VSA6', 'PEOE_VSA7', 'PEOE_VSA8', 'PEOE_VSA9',\n               'SMR_VSA1', 'SMR_VSA10', 'SMR_VSA2', 'SMR_VSA3', 'SMR_VSA4', 'SMR_VSA5', 'SMR_VSA6', 'SMR_VSA7',\n               'SMR_VSA8', 'SMR_VSA9', 'SlogP_VSA1', 'SlogP_VSA10', 'SlogP_VSA11', 'SlogP_VSA12', 'SlogP_VSA2',\n               'SlogP_VSA3', 'SlogP_VSA4', 'SlogP_VSA5', 'SlogP_VSA6', 'SlogP_VSA7', 'SlogP_VSA8', 'SlogP_VSA9', 'TPSA',\n               'EState_VSA1', 'EState_VSA10', 'EState_VSA11', 'EState_VSA2', 'EState_VSA3', 'EState_VSA4',\n               'EState_VSA5', 'EState_VSA6', 'EState_VSA7', 'EState_VSA8', 'EState_VSA9', 'VSA_EState1', 'VSA_EState10',\n               'VSA_EState2', 'VSA_EState3', 'VSA_EState4', 'VSA_EState5', 'VSA_EState6', 'VSA_EState7', 'VSA_EState8',\n               'VSA_EState9', 'FractionCSP3', 'HeavyAtomCount', 'NHOHCount', 'NOCount', 'NumAliphaticCarbocycles',\n               'NumAliphaticHeterocycles', 'NumAliphaticRings', 'NumAromaticCarbocycles', 'NumAromaticHeterocycles',\n               'NumAromaticRings', 'NumHAcceptors', 'NumHDonors', 'NumHeteroatoms', 'NumRotatableBonds',\n               'NumSaturatedCarbocycles', 'NumSaturatedHeterocycles', 'NumSaturatedRings', 'RingCount', 'MolLogP',\n               'MolMR', 'fr_Al_COO', 'fr_Al_OH', 'fr_Al_OH_noTert', 'fr_ArN', 'fr_Ar_COO', 'fr_Ar_N', 'fr_Ar_NH',\n               'fr_Ar_OH', 'fr_COO', 'fr_COO2', 'fr_C_O', 'fr_C_O_noCOO', 'fr_C_S', 'fr_HOCCN', 'fr_Imine', 'fr_NH0',\n               'fr_NH1', 'fr_NH2', 'fr_N_O', 'fr_Ndealkylation1', 'fr_Ndealkylation2', 'fr_Nhpyrrole', 'fr_SH',\n               'fr_aldehyde', 'fr_alkyl_carbamate', 'fr_alkyl_halide', 'fr_allylic_oxid', 'fr_amide', 'fr_amidine',\n               'fr_aniline', 'fr_aryl_methyl', 'fr_azide', 'fr_azo', 'fr_barbitur', 'fr_benzene', 'fr_benzodiazepine',\n               'fr_bicyclic', 'fr_diazo', 'fr_dihydropyridine', 'fr_epoxide', 'fr_ester', 'fr_ether', 'fr_furan',\n               'fr_guanido', 'fr_halogen', 'fr_hdrzine', 'fr_hdrzone', 'fr_imidazole', 'fr_imide', 'fr_isocyan',\n               'fr_isothiocyan', 'fr_ketone', 'fr_ketone_Topliss', 'fr_lactam', 'fr_lactone', 'fr_methoxy',\n               'fr_morpholine', 'fr_nitrile', 'fr_nitro', 'fr_nitro_arom', 'fr_nitro_arom_nonortho', 'fr_nitroso',\n               'fr_oxazole', 'fr_oxime', 'fr_para_hydroxylation', 'fr_phenol', 'fr_phenol_noOrthoHbond', 'fr_phos_acid',\n               'fr_phos_ester', 'fr_piperdine', 'fr_piperzine', 'fr_priamide', 'fr_prisulfonamd', 'fr_pyridine',\n               'fr_quatN', 'fr_sulfide', 'fr_sulfonamd', 'fr_sulfone', 'fr_term_acetylene', 'fr_tetrazole',\n               'fr_thiazole', 'fr_thiocyan', 'fr_thiophene', 'fr_unbrch_alkane', 'fr_urea']\n\n    def __init__(self, n_jobs=-1,\n                 *, input_type='mol', on_errors='raise', return_type='any', target_col=None, desc_list='all', add_Hs=False):\n        \"\"\"\n        All descriptors in RDKit (length = 200) [may include NaN]\n            see https://www.rdkit.org/docs/GettingStartedInPython.html#list-of-available-descriptors for the full list\n\n        Parameters\n        ----------\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict.\n            Can be -1 or # of cups. Set -1 to use all cpu cores (default).\n        input_type: string\n            Set the specific type of transform input.\n            Set to ``mol`` (default) to ``rdkit.Chem.rdchem.Mol`` objects as input.\n            When set to ``smlies``, ``transform`` method can use a SMILES list as input.\n            Set to ``any`` to use both.\n            If input is SMILES, ``Chem.MolFromSmiles`` function will be used inside.\n            for ``None`` returns, a ``ValueError`` exception will be raised.\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        desc_list: string or list\n            List of descriptor names to be called in rdkit to calculate molecule descriptors.\n            If ``classic``, the full list of rdkit v.2020.03.xx is used. (length = 200)\n            Default is to use the latest list available in the rdkit. (length = 208 in rdkit v.2020.09.xx)\n        add_Hs: boolean\n            Add hydrogen atoms to the mol format in RDKit or not.\n            This may affect a few physical descriptors (e.g., charge related ones).\n        \"\"\"\n        # self.arg = arg # arg[0] = radius, arg[1] = bit length\n        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type, target_col=target_col)\n        self.input_type = input_type\n        self.add_Hs = add_Hs\n        if desc_list == 'all':\n            self.nms = [x[0] for x in ChemDesc._descList]\n        elif desc_list == 'classic':\n            self.nms = self.classic\n        else:\n            self.nms = desc_list\n        self.calc = MoleculeDescriptors.MolecularDescriptorCalculator(self.nms)\n        self.__authors__ = ['Stephen Wu', 'TsumiNa']\n\n    def featurize(self, x):\n        if self.input_type == 'smiles':\n            x_ = x\n            x = Chem.MolFromSmiles(x)\n            if x is None:\n                raise ValueError('cannot convert Mol from SMILES %s' % x_)\n            if self.add_Hs:\n                x = Chem.AddHs(x)\n                if x is None:\n                    raise ValueError('cannot add Hs to Mol for %s' % x_)\n        if self.input_type == 'any':\n            if not isinstance(x, Chem.rdchem.Mol):\n                x_ = x\n                x = Chem.MolFromSmiles(x)\n                if x is None:\n                    raise ValueError('cannot convert Mol from SMILES %s' % x_)\n            if self.add_Hs:\n                x = Chem.AddHs(x)\n                if x is None:\n                    raise ValueError('cannot add Hs to Mol')\n        return self.calc.CalcDescriptors(x)\n\n    @property\n    def feature_labels(self):\n        return self.nms\n\n\nclass Fingerprints(BaseDescriptor):\n    \"\"\"\n    Calculate fingerprints or descriptors of organic molecules.\n    Note that MHFP currently does not support parallel computing, so n_jobs is fixed to 1.\n    \"\"\"\n\n    def __init__(self,\n                 n_jobs=-1,\n                 *,\n                 radius=3,\n                 n_bits=2048,\n                 bit_per_entry=None,\n                 counting=False,\n                 input_type='mol',\n                 featurizers='all',\n                 on_errors='raise',\n                 target_col=None,\n                 desc_list='all',\n                 add_Hs=False):\n        \"\"\"\n\n        Parameters\n        ----------\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict.\n            Can be -1 or # of cpus. Set -1 to use all cpu cores (default).\n        radius: int\n            The radius parameter in the Morgan fingerprints,\n            which is roughly half of the diameter parameter in ECFP/FCFP,\n            i.e., radius=2 is roughly equivalent to ECFP4/FCFP4.\n        n_bits: int\n            Fixed bit length based on folding.\n        bit_per_entry: int\n            Number of bits used to represent a single entry (only for non-counting case)\n            in RDKitFP, AtomPairFP, and TopologicalTorsionFP.\n            Default value follows rdkit default.\n        counting: boolean\n            Record counts of the entries instead of bits only.\n        featurizers: list[str] or str or 'all'\n            Featurizer(s) that will be used.\n            Default is 'all'.\n        input_type: string\n            Set the specific type of transform input.\n            Set to ``mol`` (default) to ``rdkit.Chem.rdchem.Mol`` objects as input.\n            When set to ``smlies``, ``transform`` method can use a SMILES list as input.\n            Set to ``any`` to use both.\n            If input is SMILES, ``Chem.MolFromSmiles`` function will be used inside.\n            for ``None`` returns, a ``ValueError`` exception will be raised.\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        desc_list: string or list\n            List of descriptor names to be called in rdkit to calculate molecule descriptors.\n            If ``classic``, the full list of rdkit v.2020.03.xx is used. (length = 200)\n            Default is to use the latest list available in the rdkit. (length = 208 in rdkit v.2020.09.xx)\n        add_Hs: boolean\n            Add hydrogen atoms to the mol format in RDKit or not.\n            This may affect a few physical descriptors (e.g., charge related ones) and currently no effect to fingerprints.\n        \"\"\"\n\n        super().__init__(featurizers=featurizers)\n\n        self.mol = RDKitFP(n_jobs, n_bits=n_bits, bit_per_entry=bit_per_entry, counting=counting,\n                           input_type=input_type, on_errors=on_errors, target_col=target_col)\n        self.mol = AtomPairFP(n_jobs, n_bits=n_bits, bit_per_entry=bit_per_entry, counting=counting,\n                              input_type=input_type, on_errors=on_errors, target_col=target_col)\n        self.mol = TopologicalTorsionFP(n_jobs, n_bits=n_bits, input_type=input_type, bit_per_entry=bit_per_entry,\n                                        counting=counting, on_errors=on_errors, target_col=target_col)\n        self.mol = MACCS(n_jobs, input_type=input_type, on_errors=on_errors, target_col=target_col)\n        self.mol = ECFP(n_jobs, radius=radius, n_bits=n_bits, input_type=input_type, counting=counting,\n                        on_errors=on_errors, target_col=target_col)\n        self.mol = FCFP(n_jobs, radius=radius, n_bits=n_bits, input_type=input_type, counting=counting,\n                        on_errors=on_errors, target_col=target_col)\n        self.mol = PatternFP(n_jobs, n_bits=n_bits, input_type=input_type, on_errors=on_errors, target_col=target_col)\n        self.mol = LayeredFP(n_jobs, n_bits=n_bits, input_type=input_type, on_errors=on_errors, target_col=target_col)\n        #         self.mol = SECFP(n_jobs, radius=radius, n_bits=n_bits, input_type=input_type, on_errors=on_errors)\n        self.mol = MHFP(1, radius=radius, n_bits=n_bits,\n                        input_type=input_type, on_errors=on_errors, target_col=target_col)\n        self.mol = DescriptorFeature(n_jobs, input_type=input_type,\n                                     on_errors=on_errors, target_col=target_col, desc_list=desc_list, add_Hs=add_Hs)\n"
  },
  {
    "path": "xenonpy/descriptor/frozen_featurizer.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport warnings\n\nimport numpy as np\nimport pandas as pd\nimport torch\n\nfrom xenonpy.descriptor.base import BaseFeaturizer\nfrom xenonpy.model import SequentialLinear\n\n__all__ = ['FrozenFeaturizer']\n\n\nclass FrozenFeaturizer(BaseFeaturizer):\n    \"\"\"\n    A Featurizer to extract hidden layers a from NN model.\n    \"\"\"\n\n    def __init__(self, model: torch.nn.Module = None, *,\n                 cuda: bool = False, depth=None, n_layer=None, \n                 on_errors='raise', return_type='any', target_col=None):\n        \"\"\"\n        Parameters\n        ----------\n        model: torch.nn.Module\n            Source model.\n        cuda: bool\n            If ``true``, run on GPU.\n        depth: int\n            The depth will be retrieved from NN model.\n        n_layer: int\n            Number of layer to be retrieved starting from the given depth.\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        return_type: str\n            Specific the return type.\n            Can be ``any``, ``array`` and ``df``.\n            ``array`` and ``df`` force return type to ``np.ndarray`` and ``pd.DataFrame`` respectively.\n            If ``any``, the return type dependent on the input type.\n            Default is ``any``\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        \"\"\"\n        super().__init__(n_jobs=0, on_errors=on_errors, return_type=return_type, target_col=target_col)\n        self.depth = depth\n        self.n_layer = n_layer\n        self.model = model\n        self.cuda = cuda\n        self._ret = []\n        self.__authors__ = ['TsumiNa']\n        self.model.eval()\n        self._depth = 0\n\n    def featurize(self, descriptor, *, depth=None, n_layer=None):\n        if not isinstance(self.model, torch.nn.Module):\n            raise TypeError('<model> must be a instance of <torch.nn.Module>')\n        hlayers = []\n        if isinstance(descriptor, pd.DataFrame):\n            descriptor = descriptor.values\n        x_ = torch.from_numpy(descriptor).float()\n        if self.cuda:\n            x_.cuda()\n            self.model.cuda()\n        else:\n            x_.cpu()\n            self.model.cpu()\n\n        if isinstance(self.model, SequentialLinear):\n            for n, m in self.model.named_children():\n                if 'layer_' in n:\n                    hlayers.append(m.linear(x_).data)\n                    x_ = m(x_)\n        else:\n            for m in self.model[:-1]:\n                hlayers.append(m.layer(x_).data)\n                x_ = m(x_)\n        \n        # get predefined values when depth/n_layer is not given initially\n        if depth is None:\n            depth = self.depth\n        if n_layer is None:\n            n_layer = self.n_layer\n\n        # check updated depth values\n        if depth is None: # self.depth must be None\n            self.depth = len(hlayers) # update self.depth\n            self._depth = len(hlayers)\n        elif depth > len(hlayers):\n            warnings.warn('<depth> is greater than the max depth of hidden layers')\n            self._depth = len(hlayers)\n        else:\n            self._depth = depth\n\n        if n_layer is None:\n            l_end = 0\n        else:\n            l_end = n_layer-self._depth\n\n        if l_end > -1:\n            if l_end > 0:\n                warnings.warn('<n_layer> is over the max depth of hidden layers starting at the given <depth>')\n            ret = hlayers[-self._depth:]\n        else:\n            ret = hlayers[-self._depth:l_end]\n        \n        if self.cuda:\n            ret = [l.cpu().numpy() for l in ret]\n        else:\n            ret = [l.numpy() for l in ret]\n        self._ret = ret\n        return np.concatenate(ret, axis=1)\n\n    @property\n    def feature_labels(self):\n        if self._depth == 0:\n            raise ValueError('Can not generate labels before transform.')\n        return ['L(' + str(i - self._depth) + ')_' + str(j + 1)\n                for i in range(len(self._ret))\n                for j in range(self._ret[i].shape[1])]\n"
  },
  {
    "path": "xenonpy/descriptor/structure.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport re\n\nimport numpy as np\nfrom pymatgen.core import Element\nfrom pymatgen.analysis.local_env import VoronoiNN\n\nfrom xenonpy.descriptor.base import BaseDescriptor, BaseFeaturizer\n\n__all__ = ['RadialDistributionFunction', 'OrbitalFieldMatrix', 'Structures']\n\n\nclass RadialDistributionFunction(BaseFeaturizer):\n    \"\"\"\n    Calculate pair distribution descriptor for machine learning.\n\n    \"\"\"\n\n    @property\n    def feature_labels(self):\n        return [str(d) for d in self._interval[1:]]\n\n    def __init__(self, n_bins=201, r_max=20.0, *, n_jobs=-1, on_errors='raise', return_type='any', target_col=None):\n        \"\"\"\n        \n        Parameters\n        ----------\n        n_bins: int\n            Number of radial grid points.\n        r_max: float\n            Maximum of radial grid (the minimum is always set zero).\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict. Set -1 to use all cpu cores (default).\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        return_type: str\n            Specific the return type.\n            Can be ``any``, ``array`` and ``df``.\n            ``array`` and ``df`` force return type to ``np.ndarray`` and ``pd.DataFrame`` respectively.\n            If ``any``, the return type dependent on the input type.\n            Default is ``any``\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        \"\"\"\n\n        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type, target_col=target_col)\n        assert n_bins >= 1, \"n_bins should be greater than 1!\"\n        assert r_max > 0, \"r_max should be greater than 0!\"\n\n        self.n_bins = n_bins\n        self.r_max = r_max\n        self.dr = r_max / (n_bins - 1)\n        self._interval = np.arange(0.0, r_max + self.dr, self.dr)\n        self.__authors__ = ['TsumiNa']\n\n    def featurize(self, structure):\n        \"\"\"\n        Get RDF of the input structure.\n        Args:\n            structure: Pymatgen Structure object.\n        Returns:\n            rdf, dist: (tuple of arrays) the first element is the\n                    normalized RDF, whereas the second element is\n                    the inner radius of the RDF bin.\n        \"\"\"\n        if not structure.is_ordered:\n            raise ValueError(\"Disordered structure support not built yet\")\n\n        # Get the distances between all atoms\n        neighbors_lst = structure.get_all_neighbors(self.r_max)\n        all_distances = np.concatenate(tuple(map(lambda x: [e[1] for e in x], neighbors_lst)))\n\n        # Compute a histogram\n        dist_hist, dist_bins = np.histogram(all_distances, bins=self._interval, density=False)\n\n        # Normalize counts\n        shell_vol = 4.0 / 3.0 * np.pi * (np.power(dist_bins[1:], 3) - np.power(dist_bins[:-1], 3))\n        number_density = structure.num_sites / structure.volume\n        return dist_hist / shell_vol / number_density\n\n\nclass OrbitalFieldMatrix(BaseFeaturizer):\n    \"\"\"\n    Representation based on the valence shell electrons of neighboring atoms.\n\n    Each atom is described by a 32-element vector uniquely representing the\n    valence subshell. A 32x32 (39x39) matrix is formed by multiplying two\n    atomic vectors. An OFM for an atomic environment is the sum of these\n    matrices for each atom the center atom coordinates with multiplied by a\n    distance function (In this case, 1/r times the weight of the coordinating\n    atom in the Voronoi.\n\n    \"\"\"\n\n    def __init__(self, including_d=True, *, n_jobs=-1, on_errors='raise', return_type='any', target_col=None):\n        \"\"\"\n\n        Parameters\n        ----------\n        including_d: bool\n            If true, add distance information.\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict. Set -1 to use all cpu cores (default).\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        return_type: str\n            Specific the return type.\n            Can be ``any``, ``array`` and ``df``.\n            ``array`` and ``df`` force return type to ``np.ndarray`` and ``pd.DataFrame`` respectively.\n            If ``any``, the return type dependent on the input type.\n            Default is ``any``\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        \"\"\"\n        super().__init__(n_jobs=n_jobs, on_errors=on_errors, return_type=return_type, target_col=target_col)\n        self._including_d = including_d\n        self.__authors__ = ['TsumiNa']\n        self.__citations__ = [\n            '''\n            @article{LamPham2017,\n                archivePrefix = {arXiv},\n                arxivId = {1705.01043},\n                author = {{Lam Pham}, Tien and Kino, Hiori and Terakura, Kiyoyuki and Miyake, Takashi and Tsuda, Koji and Takigawa, Ichigaku and {Chi Dam}, Hieu},\n                doi = {10.1080/14686996.2017.1378060},\n                eprint = {1705.01043},\n                issn = {18785514},\n                journal = {Science and Technology of Advanced Materials},\n                keywords = {Material descriptor,data mining,machine learning,magnetic materials,material informatics},\n                number = {1},\n                pages = {756--765},\n                pmid = {29152012},\n                publisher = {Taylor {\\&} Francis},\n                title = {{Machine learning reveals orbital interaction in materials}},\n                url = {https://doi.org/10.1080/14686996.2017.1378060},\n                volume = {18},\n                year = {2017}\n                }\n            '''\n        ]\n\n    @staticmethod\n    def get_element_representation(name):\n        \"\"\"\n        generate one-hot representation for a element, e.g, si = [0.0, 1.0, 0.0, 0.0, ...]\n\n        Parameters\n        ----------\n        name: string\n            element symbol\n        \"\"\"\n        element = Element(name)\n        general_element_electronic = {\n            's1': 0.0,\n            's2': 0.0,\n            'p1': 0.0,\n            'p2': 0.0,\n            'p3': 0.0,\n            'p4': 0.0,\n            'p5': 0.0,\n            'p6': 0.0,\n            'd1': 0.0,\n            'd2': 0.0,\n            'd3': 0.0,\n            'd4': 0.0,\n            'd5': 0.0,\n            'd6': 0.0,\n            'd7': 0.0,\n            'd8': 0.0,\n            'd9': 0.0,\n            'd10': 0.0,\n            'f1': 0.0,\n            'f2': 0.0,\n            'f3': 0.0,\n            'f4': 0.0,\n            'f5': 0.0,\n            'f6': 0.0,\n            'f7': 0.0,\n            'f8': 0.0,\n            'f9': 0.0,\n            'f10': 0.0,\n            'f11': 0.0,\n            'f12': 0.0,\n            'f13': 0.0,\n            'f14': 0.0\n        }\n\n        general_electron_subshells = [\n            's1', 's2', 'p1', 'p2', 'p3', 'p4', 'p5', 'p6', 'd1', 'd2', 'd3', 'd4', 'd5', 'd6', 'd7', 'd8', 'd9', 'd10',\n            'f1', 'f2', 'f3', 'f4', 'f5', 'f6', 'f7', 'f8', 'f9', 'f10', 'f11', 'f12', 'f13', 'f14'\n        ]\n\n        if name == 'H':\n            element_electronic_structure = ['s1']\n        elif name == 'He':\n            element_electronic_structure = ['s2']\n        else:\n            element_electronic_structure = [\n                ''.join(pair) for pair in re.findall(r\"\\.\\d(\\w+)<sup>(\\d+)</sup>\", element.electronic_structure)\n            ]\n        for eletron_subshell in element_electronic_structure:\n            general_element_electronic[eletron_subshell] = 1.0\n\n        return np.array([general_element_electronic[key] for key in general_electron_subshells])\n\n    def featurize(self, structure, is_including_d=True):\n        \"\"\"\n        Generate OFM descriptor\n\n        Parameters\n        ----------\n        structure: pymatgen.Structure\n            The input structure for OFM calculation.\n        \"\"\"\n\n        atoms = np.array([site.species_string for site in structure])\n        coordinator_finder = VoronoiNN(cutoff=10.0)\n\n        local_orbital_field_matrices = []\n        for i_atom, atom in enumerate(atoms):\n            neighbors = coordinator_finder.get_nn_info(structure=structure, n=i_atom)\n\n            site = structure[i_atom]\n            center_vector = self.get_element_representation(atom)\n            env_vector = np.zeros(32)\n\n            for nn in neighbors:\n                site_x = nn['site']\n                w = nn['weight']\n                site_x_label = site_x.species_string\n                neigh_vector = self.get_element_representation(site_x_label)\n                d = np.sqrt(np.sum((site.coords - site_x.coords)**2))\n                if self._including_d:\n                    env_vector += neigh_vector * w / d\n                else:\n                    env_vector += neigh_vector * w\n\n            local_matrix = center_vector[None, :] * env_vector[:, None]\n            local_matrix = np.ravel(local_matrix)\n            local_orbital_field_matrices.append(local_matrix)\n\n        return np.array(local_orbital_field_matrices).mean(axis=0)\n\n    @property\n    def feature_labels(self):\n        labels = np.array([\n            's1', 's2', 'p1', 'p2', 'p3', 'p4', 'p5', 'p6', 'd1', 'd2', 'd3', 'd4', 'd5', 'd6', 'd7', 'd8', 'd9', 'd10',\n            'f1', 'f2', 'f3', 'f4', 'f5', 'f6', 'f7', 'f8', 'f9', 'f10', 'f11', 'f12', 'f13', 'f14'\n        ])\n\n        return [i + '_' + j for i in labels for j in labels]\n\n\nclass Structures(BaseDescriptor):\n    \"\"\"\n    Calculate structure descriptors from compound's structure.\n    \"\"\"\n\n    def __init__(self,\n                 n_bins=201,\n                 r_max=20.0,\n                 including_d=True,\n                 *,\n                 n_jobs=-1,\n                 featurizers='all',\n                 on_errors='raise',\n                 target_col=None):\n        \"\"\"\n\n        Parameters\n        ----------\n        n_bins: int\n            Number of radial grid points.\n        r_max: float\n            Maximum of radial grid (the minimum is always set zero).\n        including_d: bool\n            If true, add distance information.\n        n_jobs: int\n            The number of jobs to run in parallel for both fit and predict. Set -1 to use all cpu cores (default).\n        featurizers: list[str] or 'all'\n            Featurizers that will be used.\n            Default is 'all'.\n        on_errors: string\n            How to handle exceptions in feature calculations. Can be 'nan', 'keep', 'raise'.\n            When 'nan', return a column with ``np.nan``.\n            The length of column corresponding to the number of feature labs.\n            When 'keep', return a column with exception objects.\n            The default is 'raise' which will raise up the exception.\n        target_col\n            Only relevant when input is pd.DataFrame, otherwise ignored.\n            Specify a single column to be used for transformation.\n            If ``None``, all columns of the pd.DataFrame is used.\n            Default is None.\n        \"\"\"\n        super().__init__(featurizers=featurizers)\n        self.n_jobs = n_jobs\n\n        self.structure = RadialDistributionFunction(n_bins,\n                                                    r_max,\n                                                    n_jobs=n_jobs,\n                                                    on_errors=on_errors,\n                                                    target_col=target_col)\n        self.structure = OrbitalFieldMatrix(including_d, n_jobs=n_jobs, on_errors=on_errors, target_col=target_col)\n"
  },
  {
    "path": "xenonpy/inverse/__init__.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n__all__ = ['iqspr']\n\nfrom . import iqspr\n"
  },
  {
    "path": "xenonpy/inverse/base.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n\nfrom collections import defaultdict\nfrom collections.abc import Iterable\n\nimport warnings\nimport numpy as np\nimport pandas as pd\nfrom sklearn.base import BaseEstimator\n\nfrom xenonpy.utils import TimedMetaClass\n\n\nclass LogLikelihoodError(Exception):\n    \"\"\"Base exception for LogLikelihood classes\"\"\"\n    pass\n\n\nclass ResampleError(Exception):\n    \"\"\"Base exception for Resample classes\"\"\"\n    pass\n\n\nclass ProposalError(Exception):\n    \"\"\"Base exception for Proposal classes\"\"\"\n    old_smi = None\n\n\nclass SMCError(Exception):\n    \"\"\"Base exception for SMC classes\"\"\"\n    pass\n\n\nclass BaseLogLikelihood(BaseEstimator, metaclass=TimedMetaClass):\n    \"\"\"\n    Abstract class to calculate likelihood of candidates from :class:`pandas.DataFrame` descriptor data\n    of the candidates generated by BaseFeaturizer or BaseDescriptor.\n\n    **Using a BaseLogLikelihood Class**\n\n    :meth:`BaseLogLikelihood` requires user to define only the log_likelihood function.\n    Use of log values is recommended in order to avoid typical underflow\n    that may appear for small probability values.\n\n    \"\"\"\n\n\n    def fit(self, X, y, **kwargs):\n        return self\n\n    def __call__(self, X, **targets):\n        return self.log_likelihood(X, **targets)\n\n    def log_likelihood(self, X, **targets):\n        \"\"\"\n        Log likelihood\n\n        Parameters\n        ----------\n        X: list[object]\n            Input samples for likelihood calculation.\n        targets: tuple[float, float]\n            Target area.\n            Should be a tuple which have down and up boundary.\n            e.g: ``target1=(10, 20)`` equal to ``target1 should in range [10, 20]``.\n\n        Returns\n        -------\n        log_likelihood: pd.Dataframe of float (col - properties, row - samples)\n            Estimated log-likelihood of each sample's property values.\n            Cannot be pd.Series!\n        \"\"\"\n        # raise NotImplementedError('<log_likelihood> have no implementation')\n        raise NotImplementedError('<log_likelihood> method must be implemented')\n\n\nclass BaseLogLikelihoodSet(BaseEstimator, metaclass=TimedMetaClass):\n    \"\"\"\n    Abstract class to organize log-likelihoods.\n    \n    Examples\n    --------\n    .. code::\n\n        class MyLogLikelihood(BaseLogLikelihoodSet):\n            def __init__(self):\n                super().__init__()\n    \n                self.loglike1 = SomeFeature1()\n                self.loglike1 = SomeFeature2()\n                self.loglike2 = SomeFeature3()\n                self.loglike2 = SomeFeature4()\n\n    \"\"\"\n\n    def __init__(self, *, loglikelihoods='all'):\n        \"\"\"\n            \n        Parameters\n        ----------\n        loglikelihoods: list[str] or 'all'\n            log-likelihoods that will be used.\n            Default is 'all'.\n        \"\"\"\n        self.loglikelihoods = loglikelihoods\n        self.__loglikelihoods__ = set()\n        self.__loglikelihood_sets__ = defaultdict(list)\n\n    @property\n    def elapsed(self):\n        return self._timer.elapsed\n\n    def __setattr__(self, key, value):\n\n        if key == '__loglikelihood_sets__':\n            if not isinstance(value, defaultdict):\n                raise RuntimeError('Can not set \"self.__loglikelihood_sets__\" by yourself')\n            super().__setattr__(key, value)\n        if isinstance(value, BaseLogLikelihood):\n            #            if value.__class__.__name__ in self.__loglikelihoods__:\n            #                raise RuntimeError('Duplicated log-likelihood <%s>' % value.__class__.__name__)\n            self.__loglikelihood_sets__[key].append(value)\n            self.__loglikelihoods__.add(value.__class__.__name__)\n        else:\n            super().__setattr__(key, value)\n\n    @property\n    def all_loglikelihoods(self):\n        return list(self.__loglikelihoods__)\n\n    def _check_input(self, X, y=None, **kwargs):\n        def _reformat(x):\n            if x is None:\n                return x\n\n            keys = list(self.__loglikelihood_sets__.keys())\n            if len(keys) == 1:\n                if isinstance(x, list):\n                    return pd.DataFrame(pd.Series(x), columns=keys)\n\n                if isinstance(x, np.ndarray):\n                    if len(x.shape) == 1:\n                        return pd.DataFrame(x, columns=keys)\n\n                if isinstance(x, pd.Series):\n                    return pd.DataFrame(x.values, columns=keys, index=x.index)\n\n            if isinstance(x, pd.Series):\n                x = pd.DataFrame(x)\n\n            if isinstance(x, pd.DataFrame):\n                tmp = set(x.columns) | set(kwargs.keys())\n                if set(keys).isdisjoint(tmp):\n                    # raise KeyError('name of columns do not match any log-likelihood set')\n                    warnings.warn('name of columns do not match any log-likelihood set, '\n                                  'the whole dataframe is applied to all log-likelihood sets', UserWarning)\n                    # allow type check later for this special case\n                    return [x]\n                return x\n\n            raise TypeError(\n                'you can not ues a array-like input'\n                'because there are multiply log-likelihood sets or the dim of input is not 1')\n\n        return _reformat(X), _reformat(y)\n\n    def __call__(self, X, **kwargs):\n        return self.log_likelihood(X, **kwargs)\n\n    def log_likelihood(self, X, **kwargs):\n        \"\"\"\n        Log likelihood\n        \n        Parameters\n        ----------\n        X: list-like[object] or pd.DataFrame\n            Input samples for likelihood calculation.\n            For pd.DataFrame, if any column name matches any group name,\n            the matched group(s) will be calculated with corresponding column(s);\n            otherwise, the pd.DataFrame will be passed on as is.\n        kwargs: list[string]\n            specified BaseLogLikelihood.\n        \n        Returns\n        -------\n        log_likelihood: pd.Dataframe of float (col - properties, row - samples)\n            Estimated log-likelihood of each sample's property values.\n        \"\"\"\n        # raise NotImplementedError('<log_likelihood> have no implementation')\n        # raise NotImplementedError('<log_likelihood> method must be implemented')\n\n        if not isinstance(X, Iterable):\n            raise TypeError('parameter \"entries\" must be a iterable object')\n\n        if len(X) is 0:\n            return None\n\n        if 'loglikelihoods' in kwargs:\n            loglikelihoods = kwargs['loglikelihoods']\n            if loglikelihoods != 'all' and not isinstance(loglikelihoods, list):\n                raise TypeError('parameter \"loglikelihoods\" must be a list')\n        else:\n            loglikelihoods = self.loglikelihoods\n\n        # if 'return_type' in kwargs:\n        #    del kwargs['return_type']\n\n        results = []\n\n        X, _ = self._check_input(X, **kwargs)\n        if isinstance(X, list):\n            for k, lls in self.__loglikelihood_sets__.items():\n                # if k in kwargs:\n                #     k = kwargs[k]  # what is this for? even if k not in kwargs... nothing happen right?\n                for f in lls:\n                    if loglikelihoods != 'all' and f.__class__.__name__ not in loglikelihoods:\n                        continue\n                    ret = f.log_likelihood(X[0])\n                    results.append(ret)\n        else:\n            for k, lls in self.__loglikelihood_sets__.items():\n                if k in kwargs:\n                    k = kwargs[k]  # what is this for? even if k not in kwargs... nothing happen right?\n                if k in X:\n                    for f in lls:\n                        if loglikelihoods != 'all' and f.__class__.__name__ not in loglikelihoods:\n                            continue\n                        ret = f.log_likelihood(X[k])\n                        results.append(ret)\n\n        return pd.concat(results, axis=1)\n\n\nclass BaseResample(BaseEstimator, metaclass=TimedMetaClass):\n    \"\"\"\n    Abstract class to resample candidates.\n\n    **Using a BaseResample Class**\n\n    :meth:`BaseResample` requires user to define only the resample function.\n    Use of this function appears in BaseSMC, but can often be skipped,\n    as BaseSMC may have its direct implementation inside the class, too.\n\n    \"\"\"\n\n\n    def fit(self, X, y=None, **kwargs):\n        return self\n\n    def __call__(self, X, freq, size, p):\n        return self.resample(X, freq, size, p)\n\n    def resample(self, X, freq, size, p):\n        \"\"\"\n        Re-sample from given samples.\n\n        Parameters\n        ----------\n        X: list of object\n            Input samples for likelihood calculation.\n        freq: list or np.array of int\n            Frequency of each input sample\n        size: int\n            Resample size.\n        p: np.ndarray of float\n            The probabilities associated with each entry in X.\n            If not given the sample assumes a uniform distribution over all entries.\n\n        Returns\n        -------\n        new_sample: list of object\n            Re-sampling result.\n        \"\"\"\n        raise NotImplementedError('<resample> method must be implemented')\n\n\nclass BaseProposal(BaseEstimator, metaclass=TimedMetaClass):\n    def fit(self, X, y, **kwargs):\n        return self\n\n    def __call__(self, X):\n        return self.proposal(X)\n\n    def on_errors(self, error):\n        raise error\n\n    def proposal(self, X):\n        \"\"\"\n        Proposal new samples based on the input samples.\n\n        Parameters\n        ----------\n        X: list of object\n            Samples for generate next samples\n\n        Returns\n        -------\n        samples: list of object\n            Generated samples from input samples.\n        \"\"\"\n        raise NotImplementedError('<proposal> method must be implemented')\n\n\nclass BaseSMC(BaseEstimator, metaclass=TimedMetaClass):\n    \"\"\"\n    Abstract class to iteratively generate and pick up high likelihood candidates based on\n    BaseProposal, BaseLogLikelihood, and/or BaseResample classes.\n\n    **Using a BaseSMC Class**\n\n    :meth:`BaseSMC` provides a basic looping structure for user to implement algorithms\n    that are in the form of sequential Monte Carlo or genetic algorithm.\n    To avoid repeated calculation of log-likelihood of the same candidates,\n    a unique function is required and implemented in the loop to pick up unique candidates,\n    which may need to be able to adjust for different input type of the candidates.\n    The default unique function of BaseSMC assumes candidates to be list or np.array.\n\n    The set of candidates is assumed to be list-like, but other data types are allowed\n    if they are compatible with other components (modifier, estimator, resample and unique functions).\n\n    \"\"\"\n\n    _log_likelihood = None\n    _proposal = None\n    _resample = None\n    # _targets = None\n\n    def log_likelihood(self, X):\n        \"\"\"\n        Log likelihood\n\n        Parameters\n        ----------\n        X: list of object\n            Input samples for likelihood calculation.\n            Can be changed to accept other data types.\n\n        Returns\n        -------\n        log_likelihood: np.ndarray of float\n            Estimated likelihood of each samples.\n        \"\"\"\n        if self._log_likelihood is None:\n            raise NotImplementedError('user need to implement <log_likelihood> method or'\n                                      'set <self._log_likelihood> to a instance of <BaseLogLikelihood>')\n        # return self._log_likelihood(X, **self._targets)\n        return self._log_likelihood(X)\n\n    def resample(self, X, freq, size, p):\n        \"\"\"\n        Re-sample from given samples.\n\n        Parameters\n        ----------\n        X: list[object]\n            Input samples for likelihood calculation.\n            Can be changed to accept other data types.\n        freq: list[int]\n            Frequency of each input sample.\n        size: int\n            Resample size.\n        p: numpy.ndarray[float]\n            The probabilities associated with each entry in X.\n            If not given the sample assumes a uniform distribution over all entries.\n\n        Returns\n        -------\n        re-sample: list of object\n            Re-sampling result.\n        \"\"\"\n        if self._resample is None:\n            raise NotImplementedError('user need to implement <resample> method or'\n                                      'set <self._resample> to a instance of <BaseResample>')\n        return self._resample(X, freq, size, p)\n\n    def proposal(self, X):\n        \"\"\"\n        Proposal new samples based on the input samples.\n\n        Parameters\n        ----------\n        X: list of object\n            Samples for generate next samples.\n            Can be changed to accept other data types.\n\n        Returns\n        -------\n        samples: list of object\n            Generated samples from input samples.\n        \"\"\"\n        if self._proposal is None:\n            raise NotImplementedError('user need to implement <proposal> method or'\n                                      'set <self._proposal> to a instance of <BaseProposal>')\n        return self._proposal(X)\n\n    def on_errors(self, ite, samples, error):\n        raise error\n\n    def unique(self, X):\n        \"\"\"\n\n        Parameters\n        ----------\n        X: list of object\n            Input samples.\n            Can be changed to accept other data types.\n\n        Returns\n        -------\n        unique: list of object\n            The sorted unique values.\n        unique_counts: np.ndarray of int\n            The number of times each of the unique values comes up in the original array\n        \"\"\"\n        return np.unique(X, return_counts=True)\n\n    def __setattr__(self, key, value):\n        if key is '_log_likelihood' and not isinstance(value, (BaseLogLikelihood, BaseLogLikelihoodSet)):\n            raise TypeError(\n                '<self._log_likelihood> must be a subClass of <BaseLogLikelihood> or <BaseLogLikelihoodSet>')\n        if key is '_proposal' and not isinstance(value, BaseProposal):\n            raise TypeError('<self._proposal> must be a subClass of <BaseProposal>')\n        if key is '_resample' and not isinstance(value, BaseResample):\n            raise TypeError('<self._resample> must be a subClass of <BaseResample>')\n        object.__setattr__(self, key, value)\n\n    def __call__(self, samples, beta, *, size=None, yield_lpf=False):\n        \"\"\"\n        Run SMC\n\n        Parameters\n        ----------\n        samples: list of object\n            Initial samples.\n            This variable can take other data type as long as it matches with other components,\n            such as estimator, modifier, resample and unique functions.\n        beta: list/1D-numpy of float or pd.Dataframe\n            Annealing parameters for each step.\n            If pd.Dataframe, column names should follow keys of mdl in BaseLogLikeihood or BaseLogLikelihoodSet\n        size: int\n            Sample size for each draw.\n            Default is None, which means sample size will be the same as the length of samples\n        yield_lpf : bool\n            Yield estimated log likelihood, probability and frequency of each samples. Default is ``False``.\n\n        Yields\n        -------\n        samples: list of object\n            New samples in each SMC iteration.\n            This variable can also be other data type, consistent with the input samples.\n        llh: np.ndarray float\n            Estimated values of log-likelihood of each samples.\n            Only yield when ``yield_lpf=Ture``.\n        p: np.ndarray of float\n            Estimated probabilities of each samples.\n            Only yield when ``yield_lpf=Ture``.\n        freq: np.ndarray of float\n            The number of unique samples in original samples.\n            Only yield when ``yield_lpf=Ture``.\n        \"\"\"\n\n        # sample size will be set to the length of init_samples if None\n        if size is None:\n            size = len(samples)\n\n        #         if targets:\n        #             self.update_targets(**targets)\n        #         else:\n        #             if not self._targets:\n        #                 raise ValueError('must set targets area')\n\n        try:\n            unique, frequency = self.unique(samples)\n            ll = self.log_likelihood(unique)\n\n            if isinstance(beta, pd.DataFrame):\n                beta = beta[ll.columns].values\n            else:\n                # assume only one row for beta (1-D list or numpy vector)\n                beta = np.transpose(np.repeat([beta], ll.shape[1], axis=0))\n\n            w = np.dot(ll.values, beta[0]) + np.log(frequency)\n            w_sum = np.log(np.sum(np.exp(w - np.max(w)))) + np.max(w)  # avoid underflow\n            p = np.exp(w - w_sum)\n            if yield_lpf:\n                yield unique, ll, p, frequency\n            else:\n                yield unique\n\n            # beta = np.delete(beta,0,0) #remove first \"row\"\n\n        except SMCError as e:\n            self.on_errors(0, samples, e)\n        except Exception as e:\n            raise e\n\n        # translate between input representation and execute environment representation.\n        # make sure beta is not changed (np.delete will return the deleted version, without changing original vector)\n        for i, step in enumerate(np.delete(beta, 0, 0)):\n            try:\n                re_samples = self.resample(unique, frequency, size, p)\n                samples = self.proposal(re_samples)\n\n                unique, frequency = self.unique(samples)\n\n                # annealed likelihood in log - adjust with copy counts\n                ll = self.log_likelihood(unique)\n                w = np.dot(ll.values, step) + np.log(frequency)\n                w_sum = np.log(np.sum(np.exp(w - np.max(w)))) + np.max(w)  # avoid underflow\n                p = np.exp(w - w_sum)\n                if yield_lpf:\n                    yield unique, ll, p, frequency\n                else:\n                    yield unique\n\n            except SMCError as e:\n                self.on_errors(i + 1, samples, e)\n            except Exception as e:\n                raise e\n"
  },
  {
    "path": "xenonpy/inverse/iqspr/__init__.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n__all__ = ['IQSPR', 'IQSPR4DF', 'GaussianLogLikelihood', 'NGram', 'GetProbError', 'MolConvertError', 'NGramTrainingError']\n\nfrom .estimator import GaussianLogLikelihood\nfrom .iqspr import IQSPR\nfrom .iqspr4df import IQSPR4DF\nfrom .modifier import NGram, GetProbError, MolConvertError, NGramTrainingError\n"
  },
  {
    "path": "xenonpy/inverse/iqspr/estimator.py",
    "content": "#  Copyright (c) 2022. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom copy import deepcopy\nfrom types import MethodType\nfrom typing import Union\n\nimport numpy as np\nimport pandas as pd\nfrom scipy.stats import norm\nfrom sklearn.base import BaseEstimator\nfrom sklearn.linear_model import BayesianRidge\n\nfrom xenonpy.descriptor.base import BaseDescriptor, BaseFeaturizer\nfrom xenonpy.inverse.base import BaseLogLikelihood\n\n\nclass GaussianLogLikelihood(BaseLogLikelihood):\n    def __init__(self, descriptor: Union[BaseFeaturizer, BaseDescriptor], *, targets={}, **estimators: BaseEstimator):\n        \"\"\"\n        Gaussian loglikelihood.\n\n        Parameters\n        ----------\n        descriptor: BaseFeaturizer or BaseDescriptor\n            Descriptor calculator.\n        estimators: BaseEstimator\n            Gaussian estimators follow the scikit-learn style.\n            These estimators must provide a method named ``predict`` which\n            accesses descriptors as input and returns ``(mean, std)`` in order.\n            By default, BayesianRidge_ will be used.\n\n            .. _BayesianRidge: https://scikit-learn.org/stable/modules/generated/sklearn.linear_model.BayesianRidge.html#sklearn-linear-model-bayesianridge\n        targets: dictionary\n            Upper and lower bounds for each property to calculate the Gaussian CDF probability\n        \"\"\"\n        if estimators:\n            self._mdl = deepcopy(estimators)\n        else:\n            self._mdl = {}\n\n        if not isinstance(descriptor, (BaseFeaturizer, BaseDescriptor)):\n            raise TypeError('<descriptor> must be a subclass of <BaseFeaturizer> or <BaseDescriptor>')\n        self.descriptor = descriptor\n        self.descriptor.on_errors = 'nan'\n\n        self.targets = deepcopy(targets)\n\n    def __getitem__(self, item):\n        return self._mdl[item]\n\n    def __setitem__(self, key, value):\n        if not (hasattr(value, 'predict') and isinstance(value.predict, MethodType)):\n            raise TypeError('estimator must be a regressor in scikit-learn style')\n        self._mdl[key] = deepcopy(value)\n\n    def update_targets(self, *, reset=False, **targets):\n        \"\"\"\n        Update/set the target area.\n\n        Parameters\n        ----------\n        reset: bool\n            If ``true``, reset target area.\n        targets: tuple[float, float]\n            Target area.\n            Should be a tuple which have down and up boundary.\n            e.g: ``target1=(10, 20)`` equal to ``target1 should in range [10, 20]``.\n        \"\"\"\n        if reset:\n            self.targets = {}\n        for k, v in targets.items():\n            if not isinstance(v, tuple) or len(v) != 2 or v[1] <= v[0]:\n                raise ValueError('must be a tuple with (low, up) boundary')\n            self.targets[k] = v\n\n    def remove_estimator(self, *properties: str):\n        \"\"\"\n        Remove estimators from estimator set.\n\n        Parameters\n        ----------\n        properties : str\n            The name of properties will be removed from estimator set.\n        \"\"\"\n        if not properties:\n            self._mdl = {}\n            self.targets = {}\n        else:\n            for p in properties:\n                del self._mdl[p]\n                del self.targets[p]\n\n    def predict(self, smiles, **kwargs):\n        fps = self.descriptor.transform(smiles, return_type='df')\n        fps_ = fps.dropna()\n        tmp = {}\n        for k, v in self._mdl.items():\n            if isinstance(v, BayesianRidge):\n                tmp[k + ': mean'], tmp[k + ': std'] = v.predict(fps_, return_std=True)\n            else:\n                tmp[k + ': mean'], tmp[k + ': std'] = v.predict(fps_, **kwargs)\n\n        tmp = pd.DataFrame(data=tmp, index=fps_.index)\n        return pd.DataFrame(data=tmp, index=fps.index)\n\n    # todo: implement scale function\n    def fit(self, smiles, y=None, *, X_scaler=None, y_scaler=None, **kwargs):\n        \"\"\"\n        Default - automatically remove NaN data rows\n        \n        Parameters\n        ----------\n        smiles: list[str]\n            SMILES for training.\n        y: pandas.DataFrame\n            Target properties for training.\n        X_scaler: Scaler (optional, not implement)\n            Scaler for transform X.\n        y_scaler: Scaler (optional, not implement)\n            Scaler for transform y.\n        kwargs: dict\n            Parameters pass to BayesianRidge initialization.\n        \"\"\"\n\n        if self._mdl:\n            raise RuntimeError('estimators have been set.'\n                               'If you want to re-train these estimators,'\n                               'please use `remove_estimator()` method first.')\n\n        if not isinstance(y, (pd.DataFrame, pd.Series)):\n            raise TypeError('please package all properties into a pd.DataFrame or pd.Series')\n\n        # remove NaN from X\n        desc = self.descriptor.transform(smiles, return_type='df').reset_index(drop=True)\n        y = y.reset_index(drop=True)\n        desc.dropna(inplace=True)\n        y = pd.DataFrame(y.loc[desc.index])\n\n        for c in y:\n            y_ = y[c]  # get target property.\n            # remove NaN from y_\n            y_.dropna(inplace=True)\n            desc_ = desc.loc[y_.index]\n            desc_ = desc_.values\n\n            mdl = BayesianRidge(compute_score=True, **kwargs)\n            mdl.fit(desc_, y_)\n            self._mdl[c] = mdl\n\n    # log_likelihood returns a dataframe of log-likelihood values of each property & sample\n    def log_likelihood(self, smis, *, log_0=-1000.0, **targets):\n        def _avoid_overflow(ll_):\n            # log(exp(log(UP) - log(C)) - exp(log(LOW) - log(C))) + log(C)\n            # where C = max(log(UP), max(LOW))\n            ll_c = np.max(ll_)\n            ll_ = np.log(np.exp(ll_[1] - ll_c) - np.exp(ll_[0] - ll_c)) + ll_c\n            return ll_\n\n        # self.update_targets(reset=False, **targets):\n        for k, v in targets.items():\n            if not isinstance(v, tuple) or len(v) != 2 or v[1] <= v[0]:\n                raise ValueError('must be a tuple with (low, up) boundary')\n            self.targets[k] = v\n\n        if not self.targets:\n            raise RuntimeError('<targets> is empty')\n\n        if isinstance(smis, (pd.Series, pd.DataFrame)):\n            ll = pd.DataFrame(np.full((len(smis), len(self._mdl)), log_0), index=smis.index, columns=self._mdl.keys())\n        else:\n            ll = pd.DataFrame(np.full((len(smis), len(self._mdl)), log_0), columns=self._mdl.keys())\n\n        # 1. apply prediction on given sims\n        # 2. reset returns' index to [0, 1, ..., len(smis) - 1], this should be consistent with ll's index\n        # 3. drop all rows which have NaN value(s)\n        pred = self.predict(smis).reset_index(drop=True).dropna(axis='index', how='any')\n\n        # because pred only contains available data\n        # 'pred.index.values' should eq to the previous implementation\n        idx = pred.index.values\n\n        # calculate likelihood\n        for k, (low, up) in self.targets.items():  # k: target; v: (low, up)\n\n            # predict mean, std for all smiles\n            mean, std = pred[k + ': mean'], pred[k + ': std']\n\n            # calculate low likelihood\n            low_ll = norm.logcdf(low, loc=np.asarray(mean), scale=np.asarray(std))\n\n            # calculate up likelihood\n            up_ll = norm.logcdf(up, loc=np.asarray(mean), scale=np.asarray(std))\n\n            # zip low and up likelihood to a 1-dim array then save it.\n            # like: [(tar_low_smi1, tar_up_smi1),  (tar_low_smi2, tar_up_smi2), ..., (tar_low_smiN, tar_up_smiN)]\n            lls = zip(low_ll, up_ll)\n            ll[k].iloc[idx] = np.array([*map(_avoid_overflow, list(lls))])\n\n        return ll\n"
  },
  {
    "path": "xenonpy/inverse/iqspr/iqspr.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n# import necessary libraries\n\nimport numpy as np\n\nfrom xenonpy.inverse.base import BaseSMC, BaseProposal, BaseLogLikelihood\n\n\nclass IQSPR(BaseSMC):\n\n    def __init__(self, *, estimator, modifier, r_ESS=1):\n        \"\"\"\n        SMC iqspr runner (assume data type of samples = list or np.array).\n\n        Parameters\n        ----------\n        estimator : BaseLogLikelihood or BaseLogLikelihoodSet\n            Log likelihood estimator for given input samples.\n        modifier : BaseProposal\n            Modify given input samples to new ones.\n        r_ESS : float\n            r_ESS*sample_size = Upper threshold of ESS (effective sample size) using in SMC resampling.\n            Resample will happen only if calculated ESS is smaller or equal to the upper threshold.\n            As 1 <= ESS <= sample_size, picking any r_ESS < 1/sample_size will lead to never resample;\n            picking any r_ESS >= 1 will lead to always resample.\n            Default is 1, i.e., resample at each step of SMC.\n        \"\"\"\n        self._proposal = modifier\n        self._log_likelihood = estimator\n        self._r_ESS = r_ESS\n\n    def resample(self, sims, freq, size, p):\n        if np.sum(np.power(p, 2)) <= (self._r_ESS*np.sum(freq)):\n            return np.random.choice(sims, size=size, p=p)\n        else:\n            return [item for item, count in zip(sims, freq) for i in range(count)]\n\n    @property\n    def modifier(self):\n        return self._proposal\n\n    @modifier.setter\n    def modifier(self, value):\n        self._proposal = value\n\n    @property\n    def estimator(self):\n        return self._log_likelihood\n\n    @estimator.setter\n    def estimator(self, value):\n        self._log_likelihood = value\n"
  },
  {
    "path": "xenonpy/inverse/iqspr/iqspr4df.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n# import necessary libraries\n\nimport numpy as np\nimport pandas as pd\nfrom xenonpy.inverse.base import BaseSMC, BaseProposal, BaseLogLikelihood\n\n\nclass IQSPR4DF(BaseSMC):\n\n    def __init__(self, *, estimator, modifier, r_ESS=1, sample_col=None):\n        \"\"\"\n        SMC iqspr runner (assume data type of samples = pd.DataFrame).\n\n        Parameters\n        ----------\n        estimator : BaseLogLikelihood or BaseLogLikelihoodSet\n            Log likelihood estimator for given input samples.\n        modifier : BaseProposal\n            Modify given input samples to new ones.\n        r_ESS : float\n            r_ESS*sample_size = Upper threshold of ESS (effective sample size) using in SMC resampling.\n            Resample will happen only if calculated ESS is smaller or equal to the upper threshold.\n            As 1 <= ESS <= sample_size, picking any r_ESS < 1/sample_size will lead to never resample;\n            picking any r_ESS >= 1 will lead to always resample.\n            Default is 1, i.e., resample at each step of SMC.\n        sample_col : list or str\n            Name(s) of columns that will be used to extract unique samples in the unique function.\n            Default is None, which means all columns are used.\n        \"\"\"\n        self._proposal = modifier\n        self._log_likelihood = estimator\n        self._r_ESS = r_ESS\n        if isinstance(sample_col, str):\n            self.sample_col = [sample_col]\n        elif hasattr(sample_col, '__len__'):\n            self.sample_col = sample_col\n        else:\n            self.sample_col = [sample_col]\n\n    def resample(self, sims, freq, size, p):\n        if np.sum(np.power(p, 2)) <= (self._r_ESS*np.sum(freq)):\n            return sims.sample(n=size, replace=True, weights=p).reset_index(drop=True)\n        else:\n            return sims.loc[sims.index.repeat(freq), :].reset_index(drop=True)\n\n    def unique(self, x):\n        \"\"\"\n\n        Parameters\n        ----------\n        X: pd.DataFrame\n            Input samples.\n\n        Returns\n        -------\n        unique: pd.DataFrame\n            The sorted unique samples.\n        unique_counts: np.ndarray of int\n            The number of times each of the unique values comes up in the original array\n        \"\"\"\n\n        if self.sample_col is None:\n            sample_col = x.columns.values\n        else:\n            sample_col = self.sample_col\n        uni = x.drop_duplicates(subset=sample_col).reset_index(drop = True)\n        freq = []\n        for index,row in uni.iterrows():\n            tar = row[sample_col]\n            x_ = x\n            for c,t in zip(sample_col,tar):\n                x_ = x_.loc[x_[c] == t]\n            freq.append(len(x_))\n        return uni, freq\n\n    @property\n    def modifier(self):\n        return self._proposal\n\n    @modifier.setter\n    def modifier(self, value):\n        self._proposal = value\n\n    @property\n    def estimator(self):\n        return self._log_likelihood\n\n    @estimator.setter\n    def estimator(self, value):\n        self._log_likelihood = value\n"
  },
  {
    "path": "xenonpy/inverse/iqspr/modifier.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport re\nimport warnings\nfrom copy import deepcopy\n\nimport numpy as np\nimport pandas as pd\nfrom rdkit import Chem\nfrom tqdm import tqdm\n\nfrom xenonpy.inverse.base import BaseProposal, ProposalError\n\n\nclass GetProbError(ProposalError):\n\n    def __init__(self, tmp_str, i_b, i_r):\n        self.tmp_str = tmp_str\n        self.iB = i_b\n        self.iR = i_r\n        self.old_smi = None\n\n        super().__init__('get_prob: %s not found in NGram, iB=%i, iR=%i' % (tmp_str, i_b, i_r))\n\n\nclass MolConvertError(ProposalError):\n\n    def __init__(self, new_smi):\n        self.new_smi = new_smi\n        self.old_smi = None\n\n        super().__init__('can not convert %s to Mol' % new_smi)\n\n\nclass NGramTrainingError(ProposalError):\n\n    def __init__(self, error, smi):\n        self.old_smi = smi\n\n        super().__init__('training failed for %s, because of <%s>: %s' %\n                         (smi, error.__class__.__name__, error))\n\n\nclass NGram(BaseProposal):\n\n    def __init__(self,\n                 *,\n                 ngram_table=None,\n                 sample_order=(1, 10),\n                 del_range=(1, 10),\n                 min_len=1,\n                 max_len=1000,\n                 reorder_prob=0):\n        \"\"\"\n        N-Garm\n\n        Parameters\n        ----------\n        ngram_table: NGram table\n            NGram table for modify SMILES.\n        sample_order: tuple[int, int] or int\n            range of order of ngram table used during proposal,\n            when given int, sample_order = (1, int)\n        del_range: tuple[int, int] or int\n            range of random deletion of SMILES string during proposal,\n            when given int, del_range = (1, int)\n        min_len: int\n            minimum length of the extended SMILES,\n            shall be smaller than the lower bound of the sample_order\n        max_len: int\n            max length of the extended SMILES to be terminated from continuing modification\n        reorder_prob: float\n            probability of the SMILES being reordered during proposal\n        \"\"\"\n\n        self.sample_order = sample_order\n        self.reorder_prob = reorder_prob\n        self.min_len = min_len\n        self.max_len = max_len\n        self.del_range = del_range\n\n        if ngram_table is None:\n            self._table = None\n            self._train_order = None\n        else:\n            self._table = deepcopy(ngram_table)\n            self._train_order = (1, len(ngram_table))\n\n        self._fit_sample_order()\n        self._fit_min_len()\n\n    @property\n    def sample_order(self):\n        return self._sample_order\n\n    @sample_order.setter\n    def sample_order(self, val):\n        if isinstance(val, int):\n            self._sample_order = (1, val)\n        elif isinstance(val, tuple):\n            self._sample_order = val\n        elif isinstance(val, (list, np.array, pd.Series)):\n            self._sample_order = (val[0], val[1])\n        else:\n            raise TypeError(\n                'please input a <tuple> of two <int> or a single <int> for sample_order')\n        if self._sample_order[0] < 1:\n            raise RuntimeError('Min sample_order must be greater than 0')\n        if self._sample_order[1] < self._sample_order[0]:\n            raise RuntimeError('Min sample_order must not be smaller than max sample_order')\n\n    @property\n    def reorder_prob(self):\n        return self._reorder_prob\n\n    @reorder_prob.setter\n    def reorder_prob(self, val):\n        if isinstance(val, (int, float)):\n            self._reorder_prob = val\n        else:\n            raise TypeError('please input a <float> for reorder_prob')\n\n    @property\n    def min_len(self):\n        return self._min_len\n\n    @min_len.setter\n    def min_len(self, val):\n        if isinstance(val, int):\n            self._min_len = val\n        else:\n            raise TypeError('please input a <int> for min_len')\n\n    @property\n    def max_len(self):\n        return self._max_len\n\n    @max_len.setter\n    def max_len(self, val):\n        if isinstance(val, int):\n            self._max_len = val\n        else:\n            raise TypeError('please input a <int> for max_len')\n\n    @property\n    def del_range(self):\n        return self._del_range\n\n    @del_range.setter\n    def del_range(self, val):\n        if isinstance(val, int):\n            self._del_range = (1, val)\n        elif isinstance(val, tuple):\n            self._del_range = val\n        elif isinstance(val, (list, np.array, pd.Series)):\n            self._del_range = (val[0], val[1])\n        else:\n            raise TypeError('please input a <tuple> of two <int> or a single <int> for del_range')\n        if self._del_range[1] < self._del_range[0]:\n            raise RuntimeError('Min del_range must not be smaller than max del_range')\n\n    def _fit_sample_order(self):\n        if self._train_order and self._train_order[1] < self.sample_order[1]:\n            warnings.warn(\n                'max <sample_order>: %s is greater than max <train_order>: %s,'\n                'max <sample_order> will be reduced to max <train_order>' %\n                (self.sample_order[1], self._train_order[1]), RuntimeWarning)\n            self.sample_order = (self.sample_order[0], self._train_order[1])\n        if self._train_order and self._train_order[0] > self.sample_order[0]:\n            if self._train_order[0] > self.sample_order[1]:\n                warnings.warn(\n                    'max <sample_order>: %s is smaller than min <train_order>: %s,'\n                    '<sample_order> will be replaced by the values of <train_order>' %\n                    (self.sample_order[1], self._train_order[0]), RuntimeWarning)\n                self.sample_order = (self._train_order[0], self._train_order[1])\n            else:\n                warnings.warn(\n                    'min <sample_order>: %s is smaller than min <train_order>: %s,'\n                    'min <sample_order> will be increased to min <train_order>' %\n                    (self.sample_order[0], self._train_order[0]), RuntimeWarning)\n                self.sample_order = (self._train_order[0], self.sample_order[1])\n\n    def _fit_min_len(self):\n        if self.sample_order[0] > self.min_len:\n            warnings.warn(\n                'min <sample_order>: %s is greater than min_len: %s,'\n                'min_len will be increased to min <sample_order>' %\n                (self.sample_order[0], self.min_len), RuntimeWarning)\n            self.min_len = self.sample_order[0]\n\n    def on_errors(self, error):\n        \"\"\"\n\n        Parameters\n        ----------\n        error: ProposalError\n            Error object.\n        Returns\n        -------\n\n        \"\"\"\n        if isinstance(error, GetProbError):\n            return error.old_smi\n        if isinstance(error, MolConvertError):\n            return error.old_smi\n        if isinstance(error, NGramTrainingError):\n            pass\n\n    @property\n    def ngram_table(self):\n        return deepcopy(self._table)\n\n    @ngram_table.setter\n    def ngram_table(self, value):\n        self._table = deepcopy(value)\n\n    def modify(self, ext_smi):\n        # reorder for a given probability\n        if np.random.random() < self.reorder_prob:\n            ext_smi = self.reorder_esmi(ext_smi)\n        # number of deletion (randomly pick from given range)\n        n_del = np.random.randint(self.del_range[0], self.del_range[1] + 1)\n        # first delete then add\n        ext_smi = self.del_char(ext_smi,\n                                min(n_del + 1,\n                                    len(ext_smi) - self.min_len))  # at least leave min_len char\n        # add until reaching '!' or a given max value\n        for i in range(self.max_len - len(ext_smi)):\n            ext_smi, _ = self.sample_next_char(ext_smi)\n            if ext_smi['esmi'].iloc[-1] == '!':\n                return ext_smi  # stop when hitting '!', assume must be valid SMILES\n        # check incomplete esmi\n        ext_smi = self.validator(ext_smi)\n        # fill in the '!'\n        new_pd_row = {\n            'esmi': '!',\n            'n_br': 0,\n            'n_ring': 0,\n            'substr': ext_smi['substr'].iloc[-1] + ['!']\n        }\n\n        warnings.warn('Extended SMILES hits max length', RuntimeWarning)\n\n        return ext_smi.append(new_pd_row, ignore_index=True)\n\n    @classmethod\n    def smi2list(cls, smiles):\n        # smi_pat = r'(-\\[.*?\\]|=\\[.*?\\]|#\\[.*?\\]|\\[.*?\\]|-Br|=Br|#Br|-Cl|=Cl|#Cl|Br|Cl|-.|=.|#.|\\%[0-9][0-9]|\\w|\\W)'\n        # smi_pat = r'(=\\[.*?\\]|#\\[.*?\\]|\\[.*?\\]|=Br|#Br|=Cl|#Cl|Br|Cl|=.|#.|\\%[0-9][0-9]|\\w|\\W)'\n        # smi_pat = r'(\\[.*?\\]|Br|Cl|\\%[0-9][0-9]|\\w|\\W)'\n        smi_pat = r'(\\[.*?\\]|Br|Cl|(?<=%)[0-9][0-9]|\\w|\\W)'\n\n        # smi_list = list(filter(None, re.split(smi_pat, smiles)))\n        smi_list = list(filter(lambda x: not ((x == \"\") or (x == \"%\")), re.split(smi_pat, smiles)))\n\n        # combine bond with next token only if the next token isn't a number\n        # assume SMILES does not end with a bonding character!\n        tmp_idx = [\n            i for i, x in enumerate(smi_list) if ((x in \"-=#\") and (not smi_list[i + 1].isdigit()))\n        ]\n        if len(tmp_idx) > 0:\n            for i in tmp_idx:\n                smi_list[i + 1] = smi_list[i] + smi_list[i + 1]\n            smi_list = np.delete(smi_list, tmp_idx).tolist()\n\n        return smi_list\n\n    @classmethod\n    def smi2esmi(cls, smi):\n        smi_list = cls.smi2list(smi)\n\n        esmi_list = smi_list + ['!']\n        substr_list = []  # list of all contracted substrings (include current char.)\n\n        # list of whether open branch exist at current character position (include current char.)\n        br_list = []\n\n        # list of number of open ring at current character position (include current char.)\n        ring_list = []\n        v_substr = []  # list of temporary contracted substrings\n        v_ringn = []  # list of numbering of open rings\n        c_br = 0  # tracking open branch steps for recording contracted substrings\n        n_br = 0  # tracking number of open branches\n        tmp_ss = []  # list of current contracted substring\n        for i in range(len(esmi_list)):\n            if c_br == 2:\n                v_substr.append(deepcopy(tmp_ss))  # contracted substring added w/o ')'\n                c_br = 0\n            elif c_br == 1:\n                c_br = 2\n\n            if esmi_list[i] == '(':\n                c_br = 1\n                n_br += 1\n            elif esmi_list[i] == ')':\n                tmp_ss = deepcopy(v_substr[-1])  # retrieve contracted substring added w/o ')'\n                v_substr.pop()\n                n_br -= 1\n            elif esmi_list[i].isdigit():\n                esmi_list[i] = int(esmi_list[i])\n                if esmi_list[i] in v_ringn:\n                    esmi_list[i] = v_ringn.index(esmi_list[i])\n                    v_ringn.pop(esmi_list[i])\n                else:\n                    v_ringn.insert(0, esmi_list[i])\n                    esmi_list[i] = '&'\n\n            tmp_ss.append(esmi_list[i])\n            substr_list.append(deepcopy(tmp_ss))\n            br_list.append(n_br)\n            ring_list.append(len(v_ringn))\n\n        return pd.DataFrame({\n            'esmi': esmi_list,\n            'n_br': br_list,\n            'n_ring': ring_list,\n            'substr': substr_list\n        })\n\n    # may add error check here in the future?\n    @classmethod\n    def esmi2smi(cls, ext_smi):\n        smi_list = ext_smi['esmi'].tolist()\n        num_open = []\n        num_unused = list(range(99, 0, -1))\n        for i in range(len(smi_list)):\n            if smi_list[i] == '&':\n                if num_unused[-1] > 9:\n                    smi_list[i] = ''.join(['%', str(num_unused[-1])])\n                else:\n                    smi_list[i] = str(num_unused[-1])\n                num_open.insert(0, num_unused[-1])\n                num_unused.pop()\n            elif isinstance(smi_list[i], int):\n                tmp = int(smi_list[i])\n                if num_open[tmp] > 9:\n                    smi_list[i] = ''.join(['%', str(num_open[tmp])])\n                else:\n                    smi_list[i] = str(num_open[tmp])\n                num_unused.append(num_open[tmp])\n                num_open.pop(tmp)\n        if smi_list[-1] == \"!\":  # cover cases of incomplete esmi_pd\n            smi_list.pop()  # remove the final '!'\n        return ''.join(smi_list)\n\n    def remove_table(self, max_order=None):\n        \"\"\"\n        Remove estimators from estimator set.\n\n        Parameters\n        ----------\n        max_order: int\n            max order to be left in the table, the rest is removed.\n        \"\"\"\n        if max_order:\n            tmp = self._train_order[1] - max_order\n            if tmp < 1:\n                warnings.warn('Nothing removed', RuntimeWarning)\n            else:\n                self._table = self._table[:-tmp]\n                self._train_order = (self._train_order[0], max_order)\n        else:\n            self._table = None\n            self._train_order = None\n\n    def fit(self, smiles, *, train_order=(1, 10)):\n        \"\"\"\n\n        Parameters\n        ----------\n        smiles: list[str]\n            SMILES for training.\n        train_order: tuple[int, int] or int\n            range of order when train a NGram table,\n            when given int, train_order = (1, int),\n            and train_order[0] must be > 0\n\n        Returns\n        -------\n\n        \"\"\"\n\n        def _fit_one(ext_smi):\n            for iB in [0, 1]:\n                # index for open/closed branches char. position, remove last row for '!'\n                idx_B = ext_smi.iloc[:-1].index[(ext_smi['n_br'].iloc[:-1] > 0) == iB]\n                list_R = ext_smi['n_ring'][idx_B].unique().tolist()\n                if len(list_R) > 0:\n                    # expand list of dataframe for max. num-of-ring + 1\n                    if len(self._table[0][iB]) < (max(list_R) + 1):\n                        for ii in range(len(self._table)):\n                            self._table[ii][iB].extend([\n                                pd.DataFrame()\n                                for i in range((max(list_R) + 1) - len(self._table[ii][iB]))\n                            ])\n                    for iR in list_R:\n                        # index for num-of-open-ring char. pos.\n                        idx_R = idx_B[ext_smi['n_ring'][idx_B] == iR]\n\n                        # shift one down for 'next character given substring'\n                        tar_char = ext_smi['esmi'][idx_R + 1].tolist()\n                        tar_substr = ext_smi['substr'][idx_R].tolist()\n\n                        for iO in range(self._train_order[0] - 1, self._train_order[1]):\n                            # index for char with substring length not less than order\n                            idx_O = [x for x in range(len(tar_substr)) if len(tar_substr[x]) > iO]\n                            for iC in idx_O:\n                                if not tar_char[iC] in self._table[iO][iB][iR].columns.tolist():\n                                    self._table[iO][iB][iR][tar_char[iC]] = 0\n                                tmp_row = str(tar_substr[iC][-(iO + 1):])\n                                if tmp_row not in self._table[iO][iB][iR].index.tolist():\n                                    self._table[iO][iB][iR].loc[tmp_row] = 0\n\n                                # somehow 'at' not ok with mixed char and int column names\n                                self._table[iO][iB][iR].loc[tmp_row, tar_char[iC]] += 1\n\n        if self._table:\n            raise RuntimeError('NGram table existed.'\n                               'If you want to re-train the table,'\n                               'please use `remove_table()` method first.')\n\n        if isinstance(train_order, int):\n            tmp_train_order = (1, train_order)\n        elif isinstance(train_order, tuple):\n            tmp_train_order = train_order\n        elif isinstance(train_order, (list, np.array, pd.Series)):\n            tmp_train_order = (train_order[0], train_order[1])\n        else:\n            raise TypeError('please input a <tuple> of two <int> or a single <int> for train_order')\n\n        if tmp_train_order[0] < 1:\n            raise RuntimeError('Min train_order must be greater than 0')\n        if tmp_train_order[1] < tmp_train_order[0]:\n            raise RuntimeError('Min train_order must not be smaller than max train_order')\n\n        self._train_order = tmp_train_order\n        self._table = [[[], []] for _ in range(self._train_order[1])]\n\n        self._fit_sample_order()\n        self._fit_min_len()\n        for smi in tqdm(smiles):\n            try:\n                _fit_one(self.smi2esmi(smi))\n            except Exception as e:\n                warnings.warn('NGram training failed for %s' % smi, RuntimeWarning)\n                e = NGramTrainingError(e, smi)\n                self.on_errors(e)\n\n        return self\n\n    # get probability vector for sampling next character, return character list and corresponding probability in numpy.array (normalized)\n    # may cause error if empty string list is fed into 'tmp_str'\n    # Warning: maybe can reduce the input of iB and iR - directly input the reduced list of self._ngram_tab (?)\n    # Warning: may need to update this function with bisection search for faster speed (?)\n    # Warning: may need to add worst case that no pattern found at all?\n\n    def get_prob(self, tmp_str, iB, iR):\n        # right now we use back-off method, an alternative is Kneser–Nay smoothing\n        cand_char = []\n        cand_prob = 1\n        iB = int(iB)\n        for iO in range(self.sample_order[1] - 1, self.sample_order[0] - 2, -1):\n            # if (len(tmp_str) > iO) & (str(tmp_str[-(iO + 1):]) in self._table[iO][iB][iR].index.tolist()):\n            if len(tmp_str) > iO and str(\n                    tmp_str[-(iO + 1):]) in self._table[iO][iB][iR].index.tolist():\n                cand_char = self._table[iO][iB][iR].columns.tolist()\n                cand_prob = np.array(self._table[iO][iB][iR].loc[str(tmp_str[-(iO + 1):])])\n                break\n        if len(cand_char) == 0:\n            warnings.warn('get_prob: %s not found in NGram, iB=%i, iR=%i' % (tmp_str, iB, iR),\n                          RuntimeWarning)\n            raise GetProbError(tmp_str, iB, iR)\n        return cand_char, cand_prob / np.sum(cand_prob)\n\n    # get the next character, return the probability value\n    def sample_next_char(self, ext_smi):\n        iB = ext_smi['n_br'].iloc[-1] > 0\n        iR = ext_smi['n_ring'].iloc[-1]\n        cand_char, cand_prob = self.get_prob(ext_smi['substr'].iloc[-1], iB, iR)\n        # here we assume cand_char is not empty\n        idx = np.random.choice(range(len(cand_char)), p=cand_prob)\n        next_char = cand_char[idx]\n        ext_smi = self.add_char(ext_smi, next_char)\n        return ext_smi, cand_prob[idx]\n\n    @classmethod\n    def add_char(cls, ext_smi, next_char):\n        new_pd_row = ext_smi.iloc[-1]\n        new_pd_row.at['substr'] = new_pd_row['substr'] + [next_char]\n        new_pd_row.at['esmi'] = next_char\n        if next_char == '(':\n            new_pd_row.at['n_br'] += 1\n        elif next_char == ')':\n            new_pd_row.at['n_br'] -= 1\n            # assume '(' must exist before if the extended SMILES is valid! (will fail if violated)\n            # idx = next((x for x in range(len(new_pd_row['substr'])-1,-1,-1) if new_pd_row['substr'][x] == '('), None)\n            # find index of the last unclosed '('\n            tmp_c = 1\n            for x in range(len(new_pd_row['substr']) - 2, -1,\n                           -1):  # exclude the already added \"next_char\"\n                if new_pd_row['substr'][x] == '(':\n                    tmp_c -= 1\n                elif new_pd_row['substr'][x] == ')':\n                    tmp_c += 1\n                if tmp_c == 0:\n                    idx = x\n                    break\n            # assume no '()' and '((' pattern that is not valid/possible in SMILES\n            new_pd_row.at['substr'] = new_pd_row['substr'][:(idx + 2)] + [')']\n        elif next_char == '&':\n            new_pd_row.at['n_ring'] += 1\n        elif isinstance(next_char, int):\n            new_pd_row.at['n_ring'] -= 1\n        return ext_smi.append(new_pd_row, ignore_index=True)\n\n    @classmethod\n    def del_char(cls, ext_smi, n_char):\n        if n_char > 0:\n            return ext_smi[:-n_char]\n        else:\n            return ext_smi\n\n    # need to make sure esmi_pd is a completed SMILES to use this function\n    # todo: kekuleSmiles?\n    @classmethod\n    def reorder_esmi(cls, ext_smi):\n        # convert back to SMILES first, then to rdkit MOL\n        mol = Chem.MolFromSmiles(cls.esmi2smi(ext_smi))\n        idx = np.random.choice(range(mol.GetNumAtoms())).item()\n        # currently assume kekuleSmiles=True, i.e., no small letters but with ':' for aromatic rings\n        ext_smi = cls.smi2esmi(Chem.MolToSmiles(mol, rootedAtAtom=idx))\n\n        return ext_smi\n\n    def validator(self, ext_smi):\n        # delete all ending '(' or '&'\n        for i in range(len(ext_smi)):\n            if not ((ext_smi['esmi'].iloc[-1] == '(') or (ext_smi['esmi'].iloc[-1] == '&')):\n                break\n            ext_smi = self.del_char(ext_smi, 1)\n        # delete or fill in ring closing\n        flag_ring = ext_smi['n_ring'].iloc[-1] > 0\n        for i in range(len(ext_smi)):  # max to double the length of current SMILES\n            if flag_ring and (np.random.random() < 0.7):  # 50/50 for adding two new char.\n                # add a character\n                ext_smi, _ = self.sample_next_char(ext_smi)\n                flag_ring = ext_smi['n_ring'].iloc[-1] > 0\n            else:\n                break\n        if flag_ring:\n            # prepare for delete (1st letter shall not be '&')\n            tmp_idx = ext_smi.iloc[1:].index\n            tmp_count = np.array(ext_smi['n_ring'].iloc[1:]) - np.array(ext_smi['n_ring'].iloc[:-1])\n            num_open = tmp_idx[tmp_count == 1].values.tolist()\n            num_open.reverse()\n            num_close = tmp_idx[tmp_count == -1].values.tolist()\n            idx_pop = []\n            for i in num_close:\n                idx_pop.append(ext_smi['esmi'][i])\n            for ii, i in enumerate(idx_pop):\n                ext_smi['esmi'][num_close[ii]] += sum([x < i for x in idx_pop[ii + 1:]]) - i\n                num_open.pop(i)\n            # delete all irrelevant rows and reconstruct esmi\n            ext_smi = self.smi2esmi(\n                self.esmi2smi(ext_smi.drop(ext_smi.index[num_open]).reset_index(drop=True)))\n            ext_smi = ext_smi.iloc[:-1]  # remove the '!'\n\n            # delete ':' that are not inside a ring\n        # tmp_idx = esmi_pd.index[(esmi_pd['esmi'] == ':') & (esmi_pd['n_ring'] < 1)]\n        # if len(tmp_idx) > 0:\n        #     esmi_pd = smi2esmi(esmi2smi(esmi_pd.drop(tmp_idx).reset_index(drop=True)))\n        #     esmi_pd = esmi_pd.iloc[:-1] # remove the '!'\n        # fill in branch closing (last letter shall not be '(')\n        for i in range(ext_smi['n_br'].iloc[-1]):\n            ext_smi = self.add_char(ext_smi, ')')\n\n        return ext_smi\n\n    def proposal(self, smiles):\n        \"\"\"\n        Propose new SMILES based on the given SMILES.\n        Make sure you always check the train_order against sample_order before using the proposal!\n\n        Parameters\n        ----------\n        smiles: list of SMILES\n            Given SMILES for modification.\n\n        Returns\n        -------\n        new_smiles: list of SMILES\n            The proposed SMILES from the given SMILES.\n        \"\"\"\n        new_smis = []\n        for i, smi in enumerate(smiles):\n            ext_smi = self.smi2esmi(smi)\n            try:\n                new_ext_smi = self.modify(ext_smi)\n                new_smi = self.esmi2smi(new_ext_smi)\n                if Chem.MolFromSmiles(new_smi) is None:\n                    warnings.warn('can not convert %s to Mol' % new_smi, RuntimeWarning)\n                    raise MolConvertError(new_smi)\n                new_smis.append(new_smi)\n\n            except ProposalError as e:\n                e.old_smi = smi\n                new_smi = self.on_errors(e)\n                new_smis.append(new_smi)\n\n            except Exception as e:\n                raise e\n\n        return new_smis\n\n    def _merge_table(self, ngram_tab, weight=1):\n        \"\"\"\n        Merge with a given NGram table\n\n        Parameters\n        ----------\n        ngram_tab: NGram\n            the table in the given NGram class variable will be merged to the table in self\n        weight: double\n            a scalar to scale the frequency in the given NGram table\n\n        Returns\n        -------\n        tmp_n_gram: NGram\n            merged NGram tables\n        \"\"\"\n\n        self._train_order = (min(self._train_order[0], ngram_tab._train_order[0]),\n                             max(self._train_order[1], ngram_tab._train_order[1]))\n        self._fit_sample_order()\n        self._fit_min_len()\n\n        n_gram_tab1 = self._table  # do not use deepcopy here\n        n_gram_tab2 = ngram_tab.ngram_table  # default deepcopy used\n        w = weight\n\n        ord1 = len(n_gram_tab1)\n        ord2 = len(n_gram_tab2)\n        Bc1 = len(n_gram_tab1[0][0])\n        Bc2 = len(n_gram_tab2[0][0])\n        Bo1 = len(n_gram_tab1[0][1])\n        Bo2 = len(n_gram_tab2[0][1])\n\n        # fix the number of ring mis-match first\n        if Bc1 < Bc2:\n            for ii in range(ord1):\n                n_gram_tab1[ii][0].extend([pd.DataFrame() for _ in range(Bc2 - Bc1)])\n        elif Bc1 > Bc2:\n            for ii in range(ord2):\n                n_gram_tab2[ii][0].extend([pd.DataFrame() for _ in range(Bc1 - Bc2)])\n        if Bo1 < Bo2:\n            for ii in range(ord1):\n                n_gram_tab1[ii][1].extend([pd.DataFrame() for _ in range(Bo2 - Bo1)])\n        elif Bo1 > Bo2:\n            for ii in range(ord2):\n                n_gram_tab2[ii][1].extend([pd.DataFrame() for _ in range(Bo1 - Bo2)])\n\n        # fix order mis-match\n        if ord2 > ord1:\n            n_gram_tab1.extend(n_gram_tab2[ord1:])\n\n        # combine overlapped order (weighted on tab2)\n        for i in range(min(ord1, ord2)):\n            for j in range(len(n_gram_tab1[i])):\n                for k in range(len(n_gram_tab1[i][j])):\n                    n_gram_tab1[i][j][k] = n_gram_tab1[i][j][k].add(w * n_gram_tab2[i][j][k],\n                                                                    fill_value=0).fillna(0)\n\n    def merge_table(self, *ngram_tab: 'NGram', weight=1, overwrite=True):\n        \"\"\"\n        Merge with a given NGram table\n\n        Parameters\n        ----------\n        ngram_tab\n            the table(s) in the given NGram class variable(s) will be merged to the table in self\n        weight: int/float or list/tuple/np.array/pd.Series[int/float]\n            a scalar/vector to scale the frequency in the given NGram table to be merged,\n            must have the same length as ngram_tab\n        overwrite: boolean\n            overwrite the original table (self) or not,\n            do not recommend to be False (may have memory issue)\n\n        Returns\n        -------\n        tmp_n_gram: NGram\n            merged NGram tables\n        \"\"\"\n\n        if not np.all([isinstance(x, NGram) for x in ngram_tab]):\n            raise TypeError('each element in the input must be <NGram>')\n\n        if isinstance(weight, (int, float)):\n            weight = np.repeat(weight, len(ngram_tab))\n        elif isinstance(weight, (tuple, list, np.array, pd.Series)):\n            if not np.all([isinstance(x, (int, float)) for x in weight]):\n                raise TypeError('each element in weight must be <int> or <float>')\n        else:\n            raise TypeError('weight must be <int> or <float> or a list of them')\n\n        if overwrite:\n            tmp_n_gram = self  # do not use deepcopy here\n        else:\n            tmp_n_gram = deepcopy(self)\n\n        for i, tab in enumerate(ngram_tab):\n            tmp_n_gram._merge_table(ngram_tab=tab, weight=weight[i])\n\n        return tmp_n_gram\n\n    def split_table(self, cut_order):\n        \"\"\"\n        Split NGram table into two\n\n        Parameters\n        ----------\n        cut_order: int\n            split NGram table between cut_order and cut_order+1\n\n        Returns\n        -------\n        n_gram1: NGram\n        n_gram2: NGram\n        \"\"\"\n\n        n_gram1 = deepcopy(self)\n        n_gram1.remove_table(max_order=cut_order)\n        n_gram1._fit_sample_order()\n        n_gram1._fit_min_len()\n\n        n_gram2 = deepcopy(self)\n        for iB in [0, 1]:\n            for ii in range(cut_order):\n                n_gram2._table[ii][iB] = [\n                    pd.DataFrame() for _ in range(len(n_gram2._table[ii][iB]))\n                ]\n        n_gram2._train_order = (cut_order + 1, self._train_order[1])\n        n_gram2._fit_sample_order()\n        n_gram2._fit_min_len()\n\n        return n_gram1, n_gram2\n"
  },
  {
    "path": "xenonpy/mdl/__init__.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom .mdl import *\n"
  },
  {
    "path": "xenonpy/mdl/base.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport json\nfrom os import remove\nfrom pathlib import Path\nfrom shutil import make_archive\n\nimport pandas as pd\nimport requests\nfrom requests import HTTPError\nfrom sklearn.base import BaseEstimator\n\nfrom xenonpy.utils import TimedMetaClass\n\n\nclass BaseQuery(BaseEstimator, metaclass=TimedMetaClass):\n    queryable = None\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key', endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        if self.queryable is None:\n            raise RuntimeError('Query class must give a queryable field in list of string')\n\n        self._results = None\n        self._return_json = False\n        self._endpoint = endpoint\n        self._api_key = api_key\n        self._variables = variables\n\n    @property\n    def api_key(self):\n        return self._api_key\n\n    @property\n    def endpoint(self):\n        return self._endpoint\n\n    @property\n    def variables(self):\n        return self._variables\n\n    @property\n    def results(self):\n        return self._results\n\n    def gql(self, *query_vars: str):\n        raise NotImplementedError()\n\n    @staticmethod\n    def _post(ret, return_json):\n        if return_json:\n            return ret\n\n        if not isinstance(ret, list):\n            ret = [ret]\n        ret = pd.DataFrame(ret)\n        return ret\n\n    def check_query_vars(self, *query_vars: str):\n        if not set(query_vars) <= set(self.queryable):\n            raise RuntimeError(f'`query_vars` contains illegal variables, '\n                               f'available querying variables are: {self.queryable}')\n        return query_vars\n\n    def __call__(self, *querying_vars, file=None, return_json=None):\n        if len(querying_vars) == 0:\n            query = self.gql(*self.queryable)\n        else:\n            query = self.gql(*self.check_query_vars(*querying_vars))\n\n        payload = json.dumps({'query': query, 'variables': self._variables})\n\n        if file is None:\n            ret = requests.post(url=self._endpoint,\n                                data=payload,\n                                headers={\n                                    \"content-type\": \"application/json\",\n                                    'api_key': self._api_key\n                                })\n        else:\n            file = Path(file).resolve()\n            file = make_archive(str(file), 'gztar', str(file))\n            operations = ('operations', payload)\n            maps = ('map', json.dumps({0: ['variables.model']}))\n            payload_tuples = (operations, maps)\n            files = {'0': open(file, 'rb')}\n            try:\n                ret = requests.post(url=self._endpoint,\n                                    data=payload_tuples,\n                                    headers={'api_key': self._api_key},\n                                    files=files)\n            finally:\n                files['0'].close()\n                remove(file)\n\n        if ret.status_code != 200:\n            try:\n                message = ret.json()\n            except json.JSONDecodeError:\n                message = \"Server did not responce.\"\n\n            raise HTTPError('status_code: %s, %s' % (ret.status_code, message))\n        ret = ret.json()\n        if 'errors' in ret:\n            raise ValueError(ret['errors'][0]['message'])\n        query_name = self.__class__.__name__\n        ret = ret['data'][query_name[0].lower() + query_name[1:]]\n\n        if not ret:\n            return None\n\n        if return_json is None:\n            return_json = self._return_json\n\n        ret = self._post(ret, return_json)\n        self._results = ret\n        return ret\n\n    def __repr__(self, N_CHAR_MAX=700):\n        queryable = '\\n '.join(self.queryable)\n        return f'{super().__repr__(N_CHAR_MAX)}\\nQueryable: \\n {queryable}'\n"
  },
  {
    "path": "xenonpy/mdl/descriptor.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom xenonpy.mdl.base import BaseQuery\n\n\nclass QueryDescriptorsWith(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'describe',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query (\n                $name_has: [String!]\n                $fullName_has: [String!]\n                $describe_has: [String!]\n            ) {{\n                queryDescriptorsWith(\n                    name_has: $name_has\n                    fullName_has: $fullName_has\n                    describe_has: $describe_has\n                ) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass QueryDescriptors(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'describe',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($query: [String!]!) {{\n                queryDescriptors(query: $query) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass GetDescriptorDetail(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'describe',\n        'count'\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n        self._return_json = True\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($name: String!) {{\n                getDescriptorDetail(name: $name) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass ListDescriptors(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'describe',\n    ]\n\n    def __init__(self, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables={}, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query {{\n                listDescriptors {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass CreateDescriptor(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'describe',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n        self._return_json = True\n\n    def gql(self, *query_vars: str):\n        return f'''\n            mutation ($with_: CreateDescriptorInput!) {{\n                createDescriptor (with_: $with_) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass UpdateDescriptor(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'describe',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n        self._return_json = True\n\n    def gql(self, *query_vars: str):\n        return f'''\n            mutation (\n                $name: String!\n                $with_: UpdateDescriptorInput!\n            ) {{\n                updateDescriptor (\n                    name: $name\n                    with_: $with_\n                ) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n"
  },
  {
    "path": "xenonpy/mdl/mdl.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n\nimport os\nimport tarfile\nfrom pathlib import Path\nfrom typing import List, Union\n\nimport pandas as pd\nimport requests\nfrom sklearn.base import BaseEstimator\nfrom tqdm import tqdm\n\nfrom xenonpy.utils import TimedMetaClass\nfrom .base import BaseQuery\nfrom .descriptor import QueryDescriptors, QueryDescriptorsWith, UpdateDescriptor, CreateDescriptor, ListDescriptors, \\\n    GetDescriptorDetail\nfrom .method import QueryMethods, QueryMethodsWith, UpdateMethod, CreateMethod, ListMethods, GetMethodDetail\nfrom .model import QueryModelDetails, QueryModelDetailsWith, UploadModel, GetTrainingInfo, GetTrainingEnv, \\\n    GetSupplementary, GetModelUrls, GetModelUrl, GetModelDetails, GetModelDetail, ListModelsWithProperty, \\\n    ListModelsWithModelset, ListModelsWithMethod, ListModelsWithDescriptor\nfrom .modelset import QueryModelsets, QueryModelsetsWith, UpdateModelset, CreateModelset, ListModelsets, \\\n    GetModelsetDetail\nfrom .property import QueryPropertiesWith, QueryProperties, UpdateProperty, CreateProperty, ListProperties, \\\n    GetPropertyDetail\n\n__all__ = ['MDL', 'GetVersion', 'QueryModelsetsWith', 'QueryModelsets', 'QueryModelDetailsWith', 'QueryModelDetails',\n           'UpdateModelset', 'UploadModel', 'GetModelsetDetail', 'GetModelDetail', 'GetModelDetails', 'GetModelUrls',\n           'GetModelUrl', 'GetTrainingInfo', 'GetSupplementary', 'GetTrainingEnv', 'ListModelsets',\n           'ListModelsWithDescriptor', 'ListModelsWithMethod', 'ListModelsWithModelset', 'ListModelsWithProperty',\n           'QueryPropertiesWith', 'QueryProperties', 'GetPropertyDetail', 'ListProperties', 'CreateProperty',\n           'CreateModelset', 'UpdateProperty', 'QueryDescriptorsWith', 'QueryDescriptors', 'QueryMethodsWith',\n           'QueryMethods', 'UpdateDescriptor', 'UpdateMethod', 'ListDescriptors', 'ListMethods', 'GetMethodDetail',\n           'GetDescriptorDetail', 'CreateDescriptor', 'CreateMethod']\n\n\nclass GetVersion(BaseQuery):\n    queryable = []\n\n    def __init__(self, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables={}, api_key=api_key, endpoint=endpoint)\n        self._return_json = True\n\n    def gql(self, *query_vars: str):\n        return '''\n            query {\n                getVersion \n            }\n            '''\n\n\nclass MDL(BaseEstimator, metaclass=TimedMetaClass):\n    def __init__(self, *, api_key: str = 'anonymous.user.key', endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Access key.\n        endpoint:\n            Url to XenonPy.MDL api server.\n        \"\"\"\n        self._endpoint = endpoint\n        self._api_key = api_key\n\n    @property\n    def endpoint(self):\n        return self._endpoint\n\n    @endpoint.setter\n    def endpoint(self, e):\n        self._endpoint = e\n\n    @property\n    def api_key(self):\n        return self._api_key\n\n    @api_key.setter\n    def api_key(self, k):\n        \"\"\"\"\"\"\n        self._api_key = k\n\n    @property\n    def version(self):\n        return GetVersion()()\n\n    def __call__(self, *query: str,\n                 modelset_has: Union[List[str]] = None,\n                 property_has: Union[List[str]] = None,\n                 descriptor_has: Union[List[str]] = None,\n                 method_has: Union[List[str]] = None,\n                 lang_has: Union[List[str]] = None,\n                 regression: bool = None,\n                 transferred: bool = None,\n                 deprecated: bool = None,\n                 succeed: bool = None,\n                 ) -> Union[QueryModelDetails, QueryModelDetailsWith]:\n        \"\"\"\n        Query models with specific keywords.\n\n        Parameters\n        ----------\n        query\n            Lowercase string for database querying.\n            This is a fuzzy searching, any information contains given string will hit.\n        modelset_has\n            The part of a model set's name.\n            For example, ``modelset_has='test`` will hit ``*test*``\n        property_has\n            A part of the name of property.\n        descriptor_has\n            A part of the name of descriptor.\n        method_has\n            A part of the name of training method.\n        lang_has\n            A part of the name of programming language.\n        regression\n            If``True``, searching in regression models,\n            else, searching in classification models.\n            Default is ``True``.\n        deprecated\n            Model with this mark is deprecated.\n        transferred\n            If ``True``, searching in transferred models.\n            Default is ``False``.\n        succeed\n            If ``True``, searching in succeed models.\n            Default is ``True``.\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n\n        if len(query) > 0:\n            return QueryModelDetails(dict(query=query), api_key=self.api_key, endpoint=self.endpoint)\n        else:\n            variables = dict(\n                modelset_has=modelset_has,\n                property_has=property_has,\n                descriptor_has=descriptor_has,\n                method_has=method_has,\n                lang_has=lang_has,\n                regression=regression,\n                transferred=transferred,\n                deprecated=deprecated,\n                succeed=succeed\n            )\n            variables = {k: v for k, v in variables.items() if v is not None}\n\n            return QueryModelDetailsWith(variables, api_key=self.api_key, endpoint=self.endpoint)\n\n    def upload_model(self, *,\n                     modelset_id: int,\n                     describe: dict,\n                     training_env: dict = None,\n                     training_info: dict = None,\n                     supplementary: dict = None) -> UploadModel:\n        \"\"\"\n        Upload model to XenonPy.MDL server.\n\n        Parameters\n        ----------\n        modelset_id\n        describe\n        training_env\n        training_info\n        supplementary\n\n        Returns\n        -------\n        query\n            Querying object.\n\n        \"\"\"\n        variables = dict(\n            model=None,\n            id=modelset_id,\n            describe=describe,\n            training_env=training_env,\n            training_info=training_info,\n            supplementary=supplementary,\n        )\n        variables = {k: v for k, v in variables.items() if v is not None}\n\n        return UploadModel(variables, api_key=self.api_key, endpoint=self.endpoint)\n\n    def get_training_info(self, model_id: int) -> GetTrainingInfo:\n        \"\"\"\n        Get training information, e.g. ``train_loss``.\n\n        Parameters\n        ----------\n        model_id\n            Model id.\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n\n        return GetTrainingInfo({'id': model_id}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def get_training_env(self, model_id: int) -> GetTrainingEnv:\n        \"\"\"\n        Get model's training environments.\n\n        Parameters\n        ----------\n        model_id\n            Model id.\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        return GetTrainingEnv({'id': model_id}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def get_supplementary(self, *, model_id: int) -> GetSupplementary:\n        \"\"\"\n        Get extract information about the model.\n        For regression model this should be *prediction vs observation* data.\n        For classification model, this will be the *confusion matrix*.\n\n        Parameters\n        ----------\n        model_id\n            Model id.\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        return GetSupplementary({'id': model_id}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def get_model_urls(self, *model_ids: int) -> Union[GetModelUrl, GetModelUrls]:\n        \"\"\"\n        Get download url by model id.\n\n        Parameters\n        ----------\n        model_ids\n            Model id.\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        if len(model_ids) == 0:\n            raise RuntimeError('input is not non-able')\n        if len(model_ids) == 1:\n            return GetModelUrl({'id': model_ids[0]}, api_key=self.api_key, endpoint=self.endpoint)\n        else:\n            return GetModelUrls({'ids': model_ids}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def get_model_detail(self, model_id: int) -> GetModelDetail:\n        \"\"\"\n        Get model detail by model id.\n\n        Parameters\n        ----------\n        model_id\n            Model id.\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        return GetModelDetail({'id': model_id}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def get_model_details(self, model_ids: List[int]) -> GetModelDetails:\n        \"\"\"\n        Get multiply model detail by their ids in one querying.\n\n        Parameters\n        ----------\n        model_ids\n            Model id.\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        return GetModelDetails({'ids': model_ids}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def list_models_with_property(self, name: str) -> ListModelsWithProperty:\n        \"\"\"\n        List all models relevant with given property.\n\n        Parameters\n        ----------\n        name\n            Property name\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        return ListModelsWithProperty({'name': name}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def list_models_with_modelset(self, name: str) -> ListModelsWithModelset:\n        \"\"\"\n        List all models relevant with given modelset.\n\n        Parameters\n        ----------\n        name\n            Modelset name\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        return ListModelsWithModelset({'name': name}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def list_models_with_method(self, name: str) -> ListModelsWithMethod:\n        \"\"\"\n        List all models relevant with given method.\n\n        Parameters\n        ----------\n        name\n            Method name\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        return ListModelsWithMethod({'name': name}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def list_models_with_descriptor(self, name: str) -> ListModelsWithDescriptor:\n        \"\"\"\n        List all models relevant with given descriptor.\n\n        Parameters\n        ----------\n        name\n            Descriptor name\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        return ListModelsWithDescriptor({'name': name}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def query_modelsets(self, query: str = None, *,\n                        name_has: Union[List[str]] = None,\n                        tag_has: Union[List[str]] = None,\n                        describe_has: Union[List[str]] = None,\n                        private: bool = None,\n                        deprecated: bool = None,\n                        ) -> Union[QueryModelsets, QueryModelsetsWith]:\n        \"\"\"\n        Query modelsets with specific keywords.\n\n        Parameters\n        ----------\n        query\n            Lowercase string for database querying.\n            This is a fuzzy searching, any information contains given string will hit.\n        name_has\n            The part of a model set's name.\n            For example, ``modelset_has='test`` will hit ``*test*``\n        tag_has\n            A part of the name of property.\n        describe_has\n            A part of the name of descriptor.\n        private\n            If``True``, searching in regression models,\n            else, searching in classification models.\n            Default is ``True``.\n        deprecated\n            Model with this mark is deprecated.\n        deprecated\n            If ``True``, searching in transferred models.\n            Default is ``False``.\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n\n        if query is not None:\n            return QueryModelsets(dict(query=query), api_key=self.api_key, endpoint=self.endpoint)\n        else:\n            variables = dict(\n                name_has=name_has,\n                tag_has=tag_has,\n                describe_has=describe_has,\n                private=private,\n                deprecated=deprecated,\n            )\n            variables = {k: v for k, v in variables.items() if v is not None}\n\n            return QueryModelsetsWith(variables, api_key=self.api_key, endpoint=self.endpoint)\n\n    def update_modelset(self, *,\n                        modelset_id: int,\n                        name: str = None,\n                        describe: str = None,\n                        sample_code: str = None,\n                        tags: List[str] = None,\n                        private: bool = None,\n                        deprecated: bool = None\n                        ) -> UpdateModelset:\n        \"\"\"\n        Update modelset information by modelset id.\n\n        Parameters\n        ----------\n        modelset_id\n        name\n        describe\n        sample_code\n        tags\n        private\n        deprecated\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        with_ = dict(\n            name=name,\n            describe=describe,\n            sample_code=sample_code,\n            tags=tags,\n            private=private,\n            deprecated=deprecated\n        )\n        with_ = {k: v for k, v in with_.items() if v is not None}\n\n        return UpdateModelset({'id': modelset_id, 'with_': with_}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def create_modelset(self, *,\n                        name: str,\n                        describe: str = None,\n                        sample_code: str = None,\n                        tags: List[str] = None,\n                        private: bool = False\n                        ):\n        \"\"\"\n        Create modelset.\n\n        Parameters\n        ----------\n        name\n        describe\n        sample_code\n        tags\n        private\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        with_ = dict(\n            name=name,\n            describe=describe,\n            sample_code=sample_code,\n            tags=tags,\n            private=private\n        )\n        with_ = {k: v for k, v in with_.items() if v is not None}\n\n        return CreateModelset({'with_': with_}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def list_modelsets(self) -> ListModelsets:\n        \"\"\"\n        List all modelsets.\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        return ListModelsets(api_key=self.api_key, endpoint=self.endpoint)\n\n    def get_modelset_detail(self, modelset_id: int) -> GetModelsetDetail:\n        \"\"\"\n        Get modelset detail by modelset id.\n\n        Parameters\n        ----------\n        modelset_id\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        return GetModelsetDetail({'id': modelset_id}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def query_descriptors(self, query: str = None, *,\n                          name_has: Union[List[str]] = None,\n                          fullname_has: Union[List[str]] = None,\n                          describe_has: Union[List[str]] = None,\n                          ) -> Union[QueryDescriptors, QueryDescriptorsWith]:\n        \"\"\"\n        Query descriptors with specific keywords.\n\n        Parameters\n        ----------\n        query\n            Lowercase string for database querying.\n            This is a fuzzy searching, any information contains given string will hit.\n        name_has\n            The part of a model set's name.\n            For example, ``modelset_has='test`` will hit ``*test*``\n        fullname_has\n            Part of the full name.\n        describe_has\n            Part of the descriptor.\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n\n        if query is not None:\n            return QueryDescriptors(dict(query=query), api_key=self.api_key, endpoint=self.endpoint)\n        else:\n            variables = dict(\n                name_has=name_has,\n                fullName_has=fullname_has,\n                describe_has=describe_has,\n            )\n            variables = {k: v for k, v in variables.items() if v is not None}\n\n            return QueryDescriptorsWith(variables, api_key=self.api_key, endpoint=self.endpoint)\n\n    def update_descriptor(self, *,\n                          name: str,\n                          new_name: str = None,\n                          describe: str = None,\n                          fullname: str = None,\n                          ) -> UpdateDescriptor:\n        \"\"\"\n        Update descriptor information by name.\n\n        Parameters\n        ----------\n        name\n        new_name\n        describe\n        fullname\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n\n        with_ = dict(\n            name=new_name,\n            describe=describe,\n            fullName=fullname,\n        )\n        with_ = {k: v for k, v in with_.items() if v is not None}\n\n        return UpdateDescriptor({'name': name, 'with_': with_}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def create_descriptor(self, *,\n                          name: str,\n                          describe: str = None,\n                          fullname: str = None,\n                          ) -> CreateDescriptor:\n        \"\"\"\n        Create descriptor.\n\n        Parameters\n        ----------\n        name\n        describe\n        fullname\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n\n        with_ = dict(\n            name=name,\n            describe=describe,\n            fullName=fullname,\n        )\n        with_ = {k: v for k, v in with_.items() if v is not None}\n\n        return CreateDescriptor({'with_': with_}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def list_descriptors(self) -> ListDescriptors:\n        \"\"\"\n        List all descriptor.\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        return ListDescriptors(api_key=self.api_key, endpoint=self.endpoint)\n\n    def get_descriptor_detail(self, name: str) -> GetDescriptorDetail:\n        \"\"\"\n        Get descriptor detail by name.\n\n        Parameters\n        ----------\n        name\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        return GetDescriptorDetail({'name': name}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def query_methods(self, query: str = None, *,\n                      name_has: Union[List[str]] = None,\n                      fullname_has: Union[List[str]] = None,\n                      describe_has: Union[List[str]] = None,\n                      ) -> Union[QueryMethods, QueryMethodsWith]:\n        \"\"\"\n        Query methods with specific keywords.\n\n        Parameters\n        ----------\n        query\n            Lowercase string for database querying.\n            This is a fuzzy searching, any information contains given string will hit.\n        name_has\n            The part of a model set's name.\n            For example, ``modelset_has='test`` will hit ``*test*``\n        fullname_has\n            Part of the full name.\n        describe_has\n            Part of the descriptor.\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n\n        if query is not None:\n            return QueryMethods(dict(query=query), api_key=self.api_key, endpoint=self.endpoint)\n        else:\n            variables = dict(\n                name_has=name_has,\n                fullName_has=fullname_has,\n                describe_has=describe_has,\n            )\n            variables = {k: v for k, v in variables.items() if v is not None}\n\n            return QueryMethodsWith(variables, api_key=self.api_key, endpoint=self.endpoint)\n\n    def update_method(self, *,\n                      name: str,\n                      new_name: str = None,\n                      describe: str = None,\n                      fullname: str = None,\n                      ) -> UpdateMethod:\n        \"\"\"\n        Update method information by name.\n\n        Parameters\n        ----------\n        name\n        new_name\n        describe\n        fullname\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n\n        with_ = dict(\n            name=new_name,\n            describe=describe,\n            fullName=fullname,\n        )\n        with_ = {k: v for k, v in with_.items() if v is not None}\n\n        return UpdateMethod({'name': name, 'with_': with_}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def create_method(self, *,\n                      name: str,\n                      describe: str = None,\n                      fullname: str = None,\n                      ) -> CreateMethod:\n        \"\"\"\n        Create method.\n\n        Parameters\n        ----------\n        name\n        describe\n        fullname\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n\n        with_ = dict(\n            name=name,\n            describe=describe,\n            fullName=fullname,\n        )\n        with_ = {k: v for k, v in with_.items() if v is not None}\n\n        return CreateMethod({'with_': with_}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def list_methods(self) -> ListMethods:\n        \"\"\"\n        List all methods.\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        return ListMethods(api_key=self.api_key, endpoint=self.endpoint)\n\n    def get_method_detail(self, name: str) -> GetMethodDetail:\n        \"\"\"\n        Get method detail by name.\n\n        Parameters\n        ----------\n        name\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        return GetMethodDetail({'name': name}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def query_properties(self, query: str = None, *,\n                         name_has: Union[List[str]] = None,\n                         fullname_has: Union[List[str]] = None,\n                         describe_has: Union[List[str]] = None,\n                         symbol_has: Union[List[str]] = None,\n                         unit_has: Union[List[str]] = None,\n                         ) -> Union[QueryProperties, QueryPropertiesWith]:\n        \"\"\"\n        Query properties with specific keywords.\n\n        Parameters\n        ----------\n        query\n            Lowercase string for database querying.\n            This is a fuzzy searching, any information contains given string will hit.\n        name_has\n            The part of a model set's name.\n            For example, ``modelset_has='test`` will hit ``*test*``\n        fullname_has\n            Part of the full name.\n        describe_has\n            Part of the descriptor.\n        symbol_has\n            Part of the symbol.\n        unit_has\n            Part of the unit.\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n\n        if query is not None:\n            return QueryProperties(dict(query=query), api_key=self.api_key, endpoint=self.endpoint)\n        else:\n            variables = dict(\n                name_has=name_has,\n                fullName_has=fullname_has,\n                describe_has=describe_has,\n                symbol_has=symbol_has,\n                unit_has=unit_has,\n            )\n            variables = {k: v for k, v in variables.items() if v is not None}\n\n            return QueryPropertiesWith(variables, api_key=self.api_key, endpoint=self.endpoint)\n\n    def update_property(self, *,\n                        name: str,\n                        new_name: str = None,\n                        describe: str = None,\n                        fullname: str = None,\n                        symbol: str = None,\n                        unit: str = None,\n                        ) -> UpdateProperty:\n        \"\"\"\n        Update property information by name.\n\n        Parameters\n        ----------\n        name\n        new_name\n        describe\n        fullname\n        symbol\n        unit\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        with_ = dict(\n            name=new_name,\n            describe=describe,\n            fullName=fullname,\n            symbol=symbol,\n            priunitvate=unit,\n        )\n        with_ = {k: v for k, v in with_.items() if v is not None}\n\n        return UpdateProperty({'name': name, 'with_': with_}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def create_property(self, *,\n                        name: str,\n                        describe: str = None,\n                        fullname: str = None,\n                        symbol: str = None,\n                        unit: str = None,\n                        ) -> CreateProperty:\n        \"\"\"\n        Create property.\n\n        Parameters\n        ----------\n        name\n        describe\n        fullname\n        symbol\n        unit\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n\n        with_ = dict(\n            name=name,\n            describe=describe,\n            fullName=fullname,\n            symbol=symbol,\n            unit=unit\n        )\n        with_ = {k: v for k, v in with_.items() if v is not None}\n\n        return CreateProperty({'with_': with_}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def list_properties(self) -> ListProperties:\n        \"\"\"\n        List all properties.\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        return ListProperties(api_key=self.api_key, endpoint=self.endpoint)\n\n    def get_property_detail(self, name: str):\n        \"\"\"\n        Get property detail by name.\n\n        Parameters\n        ----------\n        name\n\n        Returns\n        -------\n        query\n            Querying object.\n        \"\"\"\n        return GetPropertyDetail({'name': name}, api_key=self.api_key, endpoint=self.endpoint)\n\n    def pull(self, *model_ids: Union[int, pd.Series, pd.DataFrame],\n             save_to: str = '.') -> pd.DataFrame:\n        \"\"\"\n        Download model(s) from XenonPy.MDL server.\n\n        Parameters\n        ----------\n        model_ids\n            Model ids.\n            It can be given by a dataframe.\n            In this case, the column with name ``id`` will be used.\n        save_to\n            Path to save models.\n\n        Returns\n        -------\n\n        \"\"\"\n        if len(model_ids) == 0:\n            raise RuntimeError('input can not be empty')\n        if len(model_ids) == 1:\n            if isinstance(model_ids[0], pd.Series):\n                model_ids = model_ids[0].tolist()\n\n            if isinstance(model_ids[0], pd.DataFrame):\n                model_ids = model_ids[0]['id'].tolist()\n\n        ret = self.get_model_urls(*model_ids)('id', 'url')\n        urls = ret['url'].tolist()\n\n        path_list = []\n        for url in tqdm(urls):\n            path = '/'.join(url.split('/')[4:])\n            file = Path(save_to).resolve() / path\n            file.parent.mkdir(parents=True, exist_ok=True)\n            file = str(file)\n            r = requests.get(url=url)\n            with open(file, 'wb') as f:\n                f.write(r.content)\n            path = file[:-7]\n            tarfile.open(file).extractall(path=path)\n            os.remove(file)\n            path_list.append(path)\n\n        ret['model'] = path_list\n        return ret.drop(columns='url')\n"
  },
  {
    "path": "xenonpy/mdl/method.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom xenonpy.mdl.base import BaseQuery\n\n\nclass QueryMethodsWith(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'describe',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query (\n                $name_has: [String!]\n                $fullName_has: [String!]\n                $describe_has: [String!]\n            ) {{\n                queryMethodsWith(\n                    name_has: $name_has\n                    fullName_has: $fullName_has\n                    describe_has: $describe_has\n                ) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass QueryMethods(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'describe',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($query: [String!]!) {{\n                queryMethods(query: $query) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass GetMethodDetail(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'describe',\n        'count'\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n        self._return_json = True\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($name: String!) {{\n                getMethodDetail(name: $name) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass ListMethods(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'describe',\n    ]\n\n    def __init__(self, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables={}, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query {{\n                listMethods {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass CreateMethod(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'describe',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n        self._return_json = True\n\n    def gql(self, *query_vars: str):\n        return f'''\n            mutation ($with_: CreateMethodInput!) {{\n                createMethod (with_: $with_) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass UpdateMethod(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'describe',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n        self._return_json = True\n\n    def gql(self, *query_vars: str):\n        return f'''\n            mutation (\n                $name: String!\n                $with_: UpdateMethodInput!\n            ) {{\n                updateMethod (\n                    name: $name\n                    with_: $with_\n                ) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n"
  },
  {
    "path": "xenonpy/mdl/model.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport pandas as pd\n\nfrom xenonpy.mdl.base import BaseQuery\n\n\nclass QueryModelDetailsWith(BaseQuery):\n    common = [\n        'id',\n        'transferred',\n        'succeed',\n        'isRegression',\n        'deprecated',\n        'modelset',\n        'method',\n        'property',\n        'descriptor',\n        'lang',\n\n    ]\n\n    classification = [\n        'accuracy',\n        'precision',\n        'recall',\n        'f1',\n        'sensitivity',\n        'prevalence',\n        'specificity',\n        'ppv',\n        'npv',\n    ]\n\n    regression = [\n        'meanAbsError',\n        'maxAbsError',\n        'meanSquareError',\n        'rootMeanSquareError',\n        'r2',\n        'pValue',\n        'spearmanCorr',\n        'pearsonCorr',\n    ]\n\n    queryable = common + classification + regression\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        reg, cls = [], []\n        if 'id' not in query_vars:\n            query_vars = query_vars + ('id',)\n        for var in query_vars:\n            if var in self.common:\n                # common.append(var)\n                reg.append(var)\n                cls.append(var)\n            elif var in self.regression:\n                reg.append(var)\n            elif var in self.classification:\n                cls.append(var)\n\n        return f'''\n            query (\n                $modelset_has: [String!]\n                $property_has: [String!]\n                $descriptor_has: [String!]\n                $method_has: [String!]\n                $lang_has: [String!]\n                $regression: Boolean\n                $transferred: Boolean\n                $deprecated: Boolean\n                $succeed: Boolean\n            ) {{\n                queryModelDetailsWith(\n                    modelset_has: $modelset_has\n                    property_has: $property_has\n                    descriptor_has: $descriptor_has\n                    method_has: $method_has\n                    lang_has: $lang_has\n                    regression: $regression\n                    transferred: $transferred\n                    deprecated: $deprecated\n                    succeed: $succeed\n                ) {{\n                    ...on Regression {{\n                        {' '.join(reg)}\n                    }}\n                    ...on Classification {{\n                        {' '.join(cls)}\n                    }}\n                }}\n            }}\n            '''\n\n\nclass QueryModelDetails(BaseQuery):\n    common = [\n        'id',\n        'transferred',\n        'succeed',\n        'isRegression',\n        'deprecated',\n        'modelset',\n        'method',\n        'property',\n        'descriptor',\n        'lang',\n\n    ]\n\n    classification = [\n        'accuracy',\n        'precision',\n        'recall',\n        'f1',\n        'sensitivity',\n        'prevalence',\n        'specificity',\n        'ppv',\n        'npv',\n    ]\n\n    regression = [\n        'meanAbsError',\n        'maxAbsError',\n        'meanSquareError',\n        'rootMeanSquareError',\n        'r2',\n        'pValue',\n        'spearmanCorr',\n        'pearsonCorr',\n    ]\n    queryable = common + classification + regression\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        reg, cls = [], []\n        if 'id' not in query_vars:\n            query_vars = query_vars + ('id',)\n        for var in query_vars:\n            if var in self.common:\n                reg.append(var)\n                cls.append(var)\n            elif var in self.regression:\n                reg.append(var)\n            elif var in self.classification:\n                cls.append(var)\n\n        return f'''\n            query ($query: [String!]!) {{\n                queryModelDetails(query: $query) {{\n                    ...on Regression {{\n                        {' '.join(reg)}\n                    }}\n                    ...on Classification {{\n                        {' '.join(cls)}\n                    }}\n                }}\n            }}\n            '''\n\n\nclass GetModelUrls(BaseQuery):\n    queryable = [\n        'id',\n        'etag',\n        'url',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($ids: [Int!]!) {{\n                getModelUrls(ids: $ids) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass GetModelUrl(BaseQuery):\n    queryable = [\n        'id',\n        'etag',\n        'url',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($id: Int!) {{\n                getModelUrl(id: $id) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass GetModelDetails(BaseQuery):\n    common = [\n        'id',\n        'transferred',\n        'succeed',\n        'isRegression',\n        'deprecated',\n        'modelset',\n        'method',\n        'property',\n        'descriptor',\n        'lang',\n\n    ]\n\n    classification = [\n        'accuracy',\n        'precision',\n        'recall',\n        'f1',\n        'sensitivity',\n        'prevalence',\n        'specificity',\n        'ppv',\n        'npv',\n    ]\n\n    regression = [\n        'meanAbsError',\n        'maxAbsError',\n        'meanSquareError',\n        'rootMeanSquareError',\n        'r2',\n        'pValue',\n        'spearmanCorr',\n        'pearsonCorr',\n    ]\n    queryable = common + classification + regression\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        reg, cls = [], []\n        for var in query_vars:\n            if var in self.common:\n                reg.append(var)\n                cls.append(var)\n            elif var in self.regression:\n                reg.append(var)\n            elif var in self.classification:\n                cls.append(var)\n\n        return f'''\n            query ($ids: [Int!]!) {{\n                getModelDetails(ids: $ids) {{\n                    ...on Regression {{\n                        {' '.join(reg)}\n                    }}\n                    ...on Classification {{\n                        {' '.join(cls)}\n                    }}\n                }}\n            }}\n            '''\n        pass\n\n\nclass GetModelDetail(BaseQuery):\n    common = [\n        'id',\n        'transferred',\n        'succeed',\n        'isRegression',\n        'deprecated',\n        'modelset',\n        'method',\n        'property',\n        'descriptor',\n        'lang',\n\n    ]\n\n    classification = [\n        'accuracy',\n        'precision',\n        'recall',\n        'f1',\n        'sensitivity',\n        'prevalence',\n        'specificity',\n        'ppv',\n        'npv',\n    ]\n\n    regression = [\n        'meanAbsError',\n        'maxAbsError',\n        'meanSquareError',\n        'rootMeanSquareError',\n        'r2',\n        'pValue',\n        'spearmanCorr',\n        'pearsonCorr',\n    ]\n    queryable = common + classification + regression\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        reg, cls = [], []\n        for var in query_vars:\n            if var in self.common:\n                reg.append(var)\n                cls.append(var)\n            elif var in self.regression:\n                reg.append(var)\n            elif var in self.classification:\n                cls.append(var)\n\n        return f'''\n            query ($id: Int!) {{\n                getModelDetail(id: $id) {{\n                    ...on Regression {{\n                        {' '.join(reg)}\n                    }}\n                    ...on Classification {{\n                        {' '.join(cls)}\n                    }}\n                }}\n            }}\n            '''\n        pass\n\n\nclass GetTrainingInfo(BaseQuery):\n    queryable = []\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    @staticmethod\n    def _post(ret, return_json):\n        return pd.DataFrame(ret)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($id: Int!) {{\n                getTrainingInfo(id: $id) \n            }}\n            '''\n\n\nclass GetTrainingEnv(BaseQuery):\n    queryable = []\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n        self._return_json = True\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($id: Int!) {{\n                getTrainingEnv(id: $id) \n            }}\n            '''\n\n\nclass GetSupplementary(BaseQuery):\n    queryable = []\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n        self._return_json = True\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($id: Int!) {{\n                getSupplementary(id: $id) \n            }}\n            '''\n\n\nclass ListModelsWithProperty(BaseQuery):\n    queryable = [\n        'id',\n        'transferred',\n        'succeed',\n        'isRegression',\n        'deprecated',\n        'modelset',\n        'method',\n        'property',\n        'descriptor',\n        'lang'\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($name: String!) {{\n                listModelsWithProperty(name: $name) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass ListModelsWithModelset(BaseQuery):\n    queryable = [\n        'id',\n        'transferred',\n        'succeed',\n        'isRegression',\n        'deprecated',\n        'modelset',\n        'method',\n        'property',\n        'descriptor',\n        'lang'\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($name: String!) {{\n                listModelsWithModelset(name: $name) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass ListModelsWithMethod(BaseQuery):\n    queryable = [\n        'id',\n        'transferred',\n        'succeed',\n        'isRegression',\n        'deprecated',\n        'modelset',\n        'method',\n        'property',\n        'descriptor',\n        'lang'\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($name: String!) {{\n                listModelsWithMethod(name: $name) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass ListModelsWithDescriptor(BaseQuery):\n    queryable = [\n        'id',\n        'transferred',\n        'succeed',\n        'isRegression',\n        'deprecated',\n        'modelset',\n        'method',\n        'property',\n        'descriptor',\n        'lang'\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($name: String!) {{\n                listModelsWithDescriptor(name: $name) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass UploadModel(BaseQuery):\n    queryable = [\n        'id',\n        'etag',\n        'path'\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f\"\"\"\n                mutation(\n                    $id: Int!\n                    $describe: UploadModelInput!\n                    $model: Upload!\n                    $training_env: Json\n                    $training_info: Json\n                    $supplementary: Json\n                ) {{\n                    uploadModel(\n                        modelsetId: $id\n                        model: $model\n                        describe: $describe\n                        training_env: $training_env\n                        training_info: $training_info\n                        supplementary: $supplementary\n                    ) {{\n                        {' '.join(query_vars)}\n                    }}\n                }}\n                \"\"\"\n"
  },
  {
    "path": "xenonpy/mdl/modelset.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom xenonpy.mdl.base import BaseQuery\n\n\nclass QueryModelsetsWith(BaseQuery):\n    queryable = [\n        'id',\n        'name',\n        'describe',\n        'deprecated',\n        'private',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query (\n                $name_has: [String!]\n                $tag_has: [String!]\n                $describe_has: [String!]\n                $private: Boolean\n                $deprecated: Boolean\n            ) {{\n                queryModelsetsWith(\n                    name_has: $name_has\n                    tag_has: $tag_has\n                    describe_has: $describe_has\n                    private: $private\n                    deprecated: $deprecated\n                ) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass QueryModelsets(BaseQuery):\n    queryable = [\n        'id',\n        'name',\n        'describe',\n        'deprecated',\n        'private',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($query: [String!]!) {{\n                queryModelsets(query: $query) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass GetModelsetDetail(BaseQuery):\n    queryable = [\n        'id',\n        'name',\n        'describe',\n        'deprecated',\n        'private',\n        'contributors',\n        'owner',\n        'sampleCode',\n        'tags',\n        'count'\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n        self._return_json = True\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($id: Int!) {{\n                getModelsetDetail(id: $id) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass ListModelsets(BaseQuery):\n    queryable = [\n        'id',\n        'name',\n        'describe',\n        'deprecated',\n        'private',\n    ]\n\n    def __init__(self, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables={}, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query {{\n                listModelsets {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass CreateModelset(BaseQuery):\n    queryable = [\n        'id',\n        'name',\n        'describe',\n        'deprecated',\n        'private',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n        self._return_json = True\n\n    def gql(self, *query_vars: str):\n        return f'''\n            mutation ($with_: CreateModelsetInput!) {{\n                createModelset (with_: $with_) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass UpdateModelset(BaseQuery):\n    queryable = [\n        'id',\n        'name',\n        'describe',\n        'deprecated',\n        'private',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n        self._return_json = True\n\n    def gql(self, *query_vars: str):\n        return f'''\n            mutation (\n                $id: Int!\n                $with_: UpdateModelsetInput!\n            ) {{\n                updateModelset (\n                    id: $id\n                    with_: $with_\n                ) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n"
  },
  {
    "path": "xenonpy/mdl/property.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom xenonpy.mdl.base import BaseQuery\n\n\nclass QueryPropertiesWith(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'symbol',\n        'unit',\n        'describe',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query (\n                $name_has: [String!]\n                $fullName_has: [String!]\n                $describe_has: [String!]\n                $symbol_has: [String!]\n                $unit_has: [String!]\n            ) {{\n                queryPropertiesWith(\n                    name_has: $name_has\n                    fullName_has: $fullName_has\n                    describe_has: $describe_has\n                    symbol_has: $symbol_has\n                    unit_has: $unit_has\n                ) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass QueryProperties(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'symbol',\n        'unit',\n        'describe',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($query: [String!]!) {{\n                queryProperties(query: $query) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass GetPropertyDetail(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'symbol',\n        'unit',\n        'describe',\n        'count'\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n        self._return_json = True\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query ($name: String!) {{\n                getPropertyDetail(name: $name) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass ListProperties(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'symbol',\n        'unit',\n        'describe',\n    ]\n\n    def __init__(self, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables={}, api_key=api_key, endpoint=endpoint)\n\n    def gql(self, *query_vars: str):\n        return f'''\n            query {{\n                listProperties {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass CreateProperty(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'symbol',\n        'unit',\n        'describe',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n        self._return_json = True\n\n    def gql(self, *query_vars: str):\n        return f'''\n            mutation ($with_: CreatePropertyInput!) {{\n                createProperty (with_: $with_) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n\n\nclass UpdateProperty(BaseQuery):\n    queryable = [\n        'name',\n        'fullName',\n        'symbol',\n        'unit',\n        'describe',\n    ]\n\n    def __init__(self, variables, *, api_key: str = 'anonymous.user.key',\n                 endpoint: str = 'http://xenon.ism.ac.jp/api'):\n        \"\"\"\n        Access to XenonPy.MDL library.\n\n        Parameters\n        ----------\n        api_key\n            Not implement yet.\n        \"\"\"\n        super().__init__(variables=variables, api_key=api_key, endpoint=endpoint)\n        self._return_json = True\n\n    def gql(self, *query_vars: str):\n        return f'''\n            mutation (\n                $name: String!\n                $with_: UpdatePropertyInput!\n            ) {{\n                updateProperty (\n                    name: $name\n                    with_: $with_\n                ) {{\n                    {' '.join(query_vars)}\n                }}\n            }}\n            '''\n"
  },
  {
    "path": "xenonpy/model/__init__.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom .cgcnn import *\nfrom .extern import *\nfrom .sequential import *\n"
  },
  {
    "path": "xenonpy/model/cgcnn.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport torch\nfrom torch import nn\n\n__all__ = ['ConvLayer', 'CrystalGraphConvNet']\n\n\nclass ConvLayer(nn.Module):\n    \"\"\"\n    Convolutional operation on graphs\n    \"\"\"\n\n    def __init__(self, atom_fea_len, nbr_fea_len):\n        \"\"\"\n        Initialize ConvLayer.\n\n        Parameters\n        ----------\n\n        atom_fea_len: int\n          Number of atom hidden features.\n        nbr_fea_len: int\n          Number of bond features.\n        \"\"\"\n        super(ConvLayer, self).__init__()\n        self.atom_fea_len = atom_fea_len\n        self.nbr_fea_len = nbr_fea_len\n        self.fc_full = nn.Linear(2 * self.atom_fea_len + self.nbr_fea_len, 2 * self.atom_fea_len)\n        self.sigmoid = nn.Sigmoid()\n        self.softplus1 = nn.Softplus()\n        self.bn1 = nn.BatchNorm1d(2 * self.atom_fea_len)\n        self.bn2 = nn.BatchNorm1d(self.atom_fea_len)\n        self.softplus2 = nn.Softplus()\n\n    def forward(self, atom_in_fea, nbr_fea, nbr_fea_idx):\n        \"\"\"\n        Forward pass\n\n        N: Total number of atoms in the batch\n        M: Max number of neighbors\n\n        Parameters\n        ----------\n\n        atom_in_fea: Variable(torch.Tensor) shape (N, atom_fea_len)\n          Atom hidden features before convolution\n        nbr_fea: Variable(torch.Tensor) shape (N, M, nbr_fea_len)\n          Bond features of each atom's M neighbors\n        nbr_fea_idx: torch.LongTensor shape (N, M)\n          Indices of M neighbors of each atom\n\n        Returns\n        -------\n\n        atom_out_fea: nn.Variable shape (N, atom_fea_len)\n          Atom hidden features after convolution\n\n        \"\"\"\n        # TODO will there be problems with the index zero padding?\n        N, M = nbr_fea_idx.shape\n        # convolution\n        atom_nbr_fea = atom_in_fea[nbr_fea_idx, :]\n        total_nbr_fea = torch.cat(\n            [atom_in_fea.unsqueeze(1).expand(N, M, self.atom_fea_len), atom_nbr_fea, nbr_fea],\n            dim=2)\n        total_gated_fea = self.fc_full(total_nbr_fea)\n        total_gated_fea = self.bn1(total_gated_fea.view(-1, self.atom_fea_len * 2)).view(\n            N, M, self.atom_fea_len * 2)\n        nbr_filter, nbr_core = total_gated_fea.chunk(2, dim=2)\n        nbr_filter = self.sigmoid(nbr_filter)\n        nbr_core = self.softplus1(nbr_core)\n        nbr_sumed = torch.sum(nbr_filter * nbr_core, dim=1)\n        nbr_sumed = self.bn2(nbr_sumed)\n        out = self.softplus2(atom_in_fea + nbr_sumed)\n        return out\n\n\nclass CrystalGraphConvNet(nn.Module):\n    \"\"\"\n    Create a crystal graph convolutional neural network for predicting total\n    material properties.\n\n    See Also: [CGCNN]_.\n\n    .. [CGCNN] `Crystal Graph Convolutional Neural Networks for an Accurate and Interpretable Prediction of Material Properties`__\n    __ https://doi.org/10.1103/PhysRevLett.120.145301\n    \"\"\"\n\n    def __init__(self,\n                 orig_atom_fea_len,\n                 nbr_fea_len,\n                 atom_fea_len=64,\n                 n_conv=3,\n                 h_fea_len=128,\n                 n_h=1,\n                 classification=False):\n        \"\"\"\n        Initialize CrystalGraphConvNet.\n\n        Parameters\n        ----------\n\n        orig_atom_fea_len: int\n          Number of atom features in the input.\n        nbr_fea_len: int\n          Number of bond features.\n        atom_fea_len: int\n          Number of hidden atom features in the convolutional layers\n        n_conv: int\n          Number of convolutional layers\n        h_fea_len: int\n          Number of hidden features after pooling\n        n_h: int\n          Number of hidden layers after pooling\n        \"\"\"\n        super(CrystalGraphConvNet, self).__init__()\n        self.classification = classification\n        self.embedding = nn.Linear(orig_atom_fea_len, atom_fea_len)\n        self.convs = nn.ModuleList(\n            [ConvLayer(atom_fea_len=atom_fea_len, nbr_fea_len=nbr_fea_len) for _ in range(n_conv)])\n        self.conv_to_fc = nn.Linear(atom_fea_len, h_fea_len)\n        self.conv_to_fc_softplus = nn.Softplus()\n        if n_h > 1:\n            self.fcs = nn.ModuleList([nn.Linear(h_fea_len, h_fea_len) for _ in range(n_h - 1)])\n            self.softpluses = nn.ModuleList([nn.Softplus() for _ in range(n_h - 1)])\n        if self.classification:\n            self.fc_out = nn.Linear(h_fea_len, 2)\n        else:\n            self.fc_out = nn.Linear(h_fea_len, 1)\n        if self.classification:\n            self.logsoftmax = nn.LogSoftmax()\n            self.dropout = nn.Dropout()\n\n    def forward(self, atom_fea, nbr_fea, nbr_fea_idx, crystal_atom_idx):\n        \"\"\"\n        Forward pass\n\n        N: Total number of atoms in the batch\n        M: Max number of neighbors\n        N0: Total number of crystals in the batch\n\n        Parameters\n        ----------\n\n        atom_fea: Variable(torch.Tensor) shape (N, orig_atom_fea_len)\n          Atom features from atom type\n        nbr_fea: Variable(torch.Tensor) shape (N, M, nbr_fea_len)\n          Bond features of each atom's M neighbors\n        nbr_fea_idx: torch.LongTensor shape (N, M)\n          Indices of M neighbors of each atom\n        crystal_atom_idx: list of torch.LongTensor of length N0\n          Mapping from the crystal idx to atom idx\n\n        Returns\n        -------\n\n        prediction: nn.Variable shape (N, )\n          Atom hidden features after convolution\n\n        \"\"\"\n        atom_fea = self.embedding(atom_fea)\n        for conv_func in self.convs:\n            atom_fea = conv_func(atom_fea, nbr_fea, nbr_fea_idx)\n        crys_fea = self.pooling(atom_fea, crystal_atom_idx)\n        crys_fea = self.conv_to_fc(self.conv_to_fc_softplus(crys_fea))\n        crys_fea = self.conv_to_fc_softplus(crys_fea)\n        if self.classification:\n            crys_fea = self.dropout(crys_fea)\n        if hasattr(self, 'fcs') and hasattr(self, 'softpluses'):\n            for fc, softplus in zip(self.fcs, self.softpluses):\n                crys_fea = softplus(fc(crys_fea))\n        out = self.fc_out(crys_fea)\n        if self.classification:\n            out = self.logsoftmax(out)\n        return out\n\n    @staticmethod\n    def pooling(atom_fea, crystal_atom_idx):\n        \"\"\"\n        Pooling the atom features to crystal features\n\n        N: Total number of atoms in the batch\n        N0: Total number of crystals in the batch\n\n        Parameters\n        ----------\n\n        atom_fea: Variable(torch.Tensor) shape (N, atom_fea_len)\n          Atom feature vectors of the batch\n        crystal_atom_idx: list of torch.LongTensor of length N0\n          Mapping from the crystal idx to atom idx\n        \"\"\"\n        assert sum([len(idx_map) for idx_map in crystal_atom_idx]) == \\\n               atom_fea.data.shape[0]\n        summed_fea = [\n            torch.mean(atom_fea[idx_map], dim=0, keepdim=True) for idx_map in crystal_atom_idx\n        ]\n        return torch.cat(summed_fea, dim=0)\n"
  },
  {
    "path": "xenonpy/model/extern.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n\"\"\"\nThis module wrapped external model tool convenient.\n\"\"\"\n"
  },
  {
    "path": "xenonpy/model/nn/__init__.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom .layer import *\n"
  },
  {
    "path": "xenonpy/model/nn/layer.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom torch import nn\n\nfrom .wrap import L1\n\n__all__ = ['Layer1d']\n\n\nclass Layer1d(nn.Module):\n    \"\"\"\n    Base NN layer. This is a wrap around PyTorch.\n    See here for details: http://pytorch.org/docs/master/nn.html#\n    \"\"\"\n\n    def __init__(self, n_in, n_out, *,\n                 drop_out=0.,\n                 layer_func=L1.linear(bias=True),\n                 act_func=nn.ReLU(),\n                 batch_nor=L1.batch_norm(eps=1e-05, momentum=0.1, affine=True)\n                 ):\n        \"\"\"\n        Parameters\n        ----------\n        n_in: int\n            Size of each input sample.\n        n_out: int\n            Size of each output sample\n        drop_out: float\n            Probability of an element to be zeroed. Default: 0.5\n        layer_func: func\n            Layers come with PyTorch.\n        act_func: func\n            Activation function.\n        batch_nor: func\n            Normalization layers\n        \"\"\"\n        super().__init__()\n        self.layer = layer_func(n_in, n_out)\n        self.batch_nor = None if not batch_nor else batch_nor(n_out)\n        self.act_func = None if not act_func else act_func\n        self.dropout = None if drop_out == 0. else nn.Dropout(drop_out)\n\n    def forward(self, *x):\n        _out = self.layer(*x)\n        if self.dropout:\n            _out = self.dropout(_out)\n        if self.batch_nor:\n            _out = self.batch_nor(_out)\n        if self.act_func:\n            _out = self.act_func(_out)\n        return _out\n"
  },
  {
    "path": "xenonpy/model/nn/wrap.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\nfrom functools import partial\n\nimport torch as tc\nfrom torch import nn\n\n__all__ = ['Optim', 'LrScheduler', 'Init', 'L1']\n\n\nclass Optim(object):\n    @staticmethod\n    def sgd(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.optim.SGD`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.optim.SGD\n        \"\"\"\n        return partial(tc.optim.SGD, *args, **kwargs)\n\n    @staticmethod\n    def ada_delta(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.optim.Adadelta`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.optim.Adadelta\n        \"\"\"\n        return partial(tc.optim.Adadelta, *args, **kwargs)\n\n    @staticmethod\n    def ada_grad(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.optim.Adagrad`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.optim.Adagrad\n        \"\"\"\n        return partial(tc.optim.Adagrad, *args, **kwargs)\n\n    @staticmethod\n    def adam(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.optim.Adam`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.optim.Adam\n        \"\"\"\n        return partial(tc.optim.Adam, *args, **kwargs)\n\n    @staticmethod\n    def sparse_adam(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.optim.SparseAdam`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.optim.SparseAdam\n        \"\"\"\n        return partial(tc.optim.SparseAdam, *args, **kwargs)\n\n    @staticmethod\n    def ada_max(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.optim.Adamax`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.optim.Adamax\n        \"\"\"\n        return partial(tc.optim.Adamax, *args, **kwargs)\n\n    @staticmethod\n    def asgd(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.optim.ASGD`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.optim.ASGD\n        \"\"\"\n        return partial(tc.optim.ASGD, *args, **kwargs)\n\n    @staticmethod\n    def lbfgs(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.optim.LBFGS`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.optim.LBFGS\n        \"\"\"\n        return partial(tc.optim.LBFGS, *args, **kwargs)\n\n    @staticmethod\n    def rms_prop(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.optim.RMSprop`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.optim.RMSprop\n        \"\"\"\n        return partial(tc.optim.RMSprop, *args, **kwargs)\n\n    @staticmethod\n    def r_prop(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.optim.Rprop`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.optim.Rprop\n        \"\"\"\n        return partial(tc.optim.Rprop, *args, **kwargs)\n\n\nclass LrScheduler(object):\n    @staticmethod\n    def lambda_lr(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.optim.lr_scheduler.LambdaLR`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.optim.lr_scheduler.LambdaLR\n        \"\"\"\n        return partial(tc.optim.lr_scheduler.LambdaLR, *args, **kwargs)\n\n    @staticmethod\n    def step_lr(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.optim.lr_scheduler.StepLR`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.optim.lr_scheduler.StepLR\n        \"\"\"\n        return partial(tc.optim.lr_scheduler.StepLR, *args, **kwargs)\n\n    @staticmethod\n    def multi_step_lr(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.optim.lr_scheduler.MultiStepLR`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.optim.lr_scheduler.MultiStepLR\n        \"\"\"\n        return partial(tc.optim.lr_scheduler.MultiStepLR, *args, **kwargs)\n\n    @staticmethod\n    def exponential_lr(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.optim.lr_scheduler.ExponentialLR`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.optim.lr_scheduler.ExponentialLR\n        \"\"\"\n        return partial(tc.optim.lr_scheduler.ExponentialLR, *args, **kwargs)\n\n    @staticmethod\n    def reduce_lr_on_plateau(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.optim.lr_scheduler.ReduceLROnPlateau`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.optim.lr_scheduler.ReduceLROnPlateau\n        \"\"\"\n        return partial(tc.optim.lr_scheduler.ReduceLROnPlateau, *args, **kwargs)\n\n\nclass Init(object):\n    @staticmethod\n    def uniform(*, scale=0.1):\n        b = 1 * scale\n        a = -b\n        return partial(nn.init.uniform, a=a, b=b)\n\n\nclass L1(object):\n    @staticmethod\n    def conv(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.nn.Conv1d`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.nn.Conv1d\n        \"\"\"\n        return partial(nn.Conv1d, *args, **kwargs)\n\n    @staticmethod\n    def linear(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.nn.Linear`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.nn.Linear\n        \"\"\"\n        return partial(nn.Linear, *args, **kwargs)\n\n    @staticmethod\n    def batch_norm(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.nn.BatchNorm1d`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.nn.BatchNorm1d\n        \"\"\"\n        return partial(nn.BatchNorm1d, *args, **kwargs)\n\n    @staticmethod\n    def instance_norm(*args, **kwargs):\n        \"\"\"\n        Wrapper class for :class:`torch.nn.InstanceNorm1d`.\n        http://pytorch.org/docs/0.3.0/optim.html#torch.nn.InstanceNorm1d\n        \"\"\"\n        return partial(nn.InstanceNorm1d, *args, **kwargs)\n"
  },
  {
    "path": "xenonpy/model/sequential.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport math\nfrom typing import Union, Sequence, Callable, Any, Optional\n\nfrom torch import nn\n\n__all__ = ['LinearLayer', 'SequentialLinear']\n\n\nclass LinearLayer(nn.Module):\n    \"\"\"\n    Base NN layer. This is a wrap around PyTorch.\n    See here for details: http://pytorch.org/docs/master/nn.html#\n    \"\"\"\n\n    def __init__(self,\n                 in_features: int,\n                 out_features: int,\n                 *,\n                 bias: bool = True,\n                 dropout: float = 0.,\n                 activation_func: Callable = nn.ReLU(),\n                 normalizer: Union[float, None] = .1):\n        \"\"\"\n        Parameters\n        ----------\n        in_features:\n            Size of each input sample.\n        out_features:\n            Size of each output sample\n        bias:\n            If set to ``False``, the layer will not learn an additive bias.\n            Default: ``True``\n        dropout: float\n            Probability of an element to be zeroed. Default: 0.5\n        activation_func: func\n            Activation function.\n        normalizer: func\n            Normalization layers\n        \"\"\"\n        super().__init__()\n        self.linear = nn.Linear(in_features, out_features, bias)\n        self.dropout = nn.Dropout(dropout)\n        self.normalizer = None if not normalizer else nn.BatchNorm1d(out_features, momentum=normalizer)\n        self.activation = None if not activation_func else activation_func\n\n    def forward(self, x):\n        _out = self.linear(x)\n        if self.dropout:\n            _out = self.dropout(_out)\n        if self.normalizer:\n            _out = self.normalizer(_out)\n        if self.activation:\n            _out = self.activation(_out)\n        return _out\n\n\nclass SequentialLinear(nn.Module):\n    \"\"\"\n    Sequential model with linear layers and configurable other hype-parameters.\n    e.g. ``dropout``, ``hidden layers``\n\n    \"\"\"\n\n    def __init__(\n            self,\n            in_features: int,\n            out_features: int,\n            bias: bool = True,\n            *,\n            h_neurons: Union[Sequence[float], Sequence[int]] = (),\n            h_bias: Union[bool, Sequence[bool]] = True,\n            h_dropouts: Union[float, Sequence[float]] = 0.0,\n            h_normalizers: Union[float, None, Sequence[Optional[float]]] = 0.1,\n            h_activation_funcs: Union[Callable, None, Sequence[Optional[Callable]]] = nn.ReLU(),\n    ):\n        \"\"\"\n\n        Parameters\n        ----------\n        in_features\n            Size of input.\n        out_features\n            Size of output.\n        bias\n            Enable ``bias`` in input layer.\n        h_neurons\n            Number of neurons in hidden layers.\n            Can be a tuple of floats. In that case,\n            all these numbers will be used to calculate the neuron numbers.\n            e.g. (0.5, 0.4, ...) will be expanded as (in_features * 0.5, in_features * 0.4, ...)\n        h_bias\n            ``bias`` in hidden layers.\n        h_dropouts\n            Probabilities of dropout in hidden layers.\n        h_normalizers\n            Momentum of batched normalizers in hidden layers.\n        h_activation_funcs\n            Activation functions in hidden layers.\n        \"\"\"\n        super().__init__()\n        self._h_layers = len(h_neurons)\n        if self._h_layers > 0:\n            if isinstance(h_neurons[0], float):\n                tmp = [in_features]\n                for i, ratio in enumerate(h_neurons):\n                    num = math.ceil(in_features * ratio)\n                    tmp.append(num)\n                neurons = tuple(tmp)\n\n            elif isinstance(h_neurons[0], int):\n                neurons = (in_features,) + tuple(h_neurons)\n            else:\n                raise RuntimeError('illegal parameter type of <h_neurons>')\n\n            activation_funcs = self._check_input(h_activation_funcs)\n            normalizers = self._check_input(h_normalizers)\n            dropouts = self._check_input(h_dropouts)\n            bias = (bias,) + self._check_input(h_bias)\n\n            for i in range(self._h_layers):\n                setattr(\n                    self, f'layer_{i}',\n                    LinearLayer(in_features=neurons[i],\n                                out_features=neurons[i + 1],\n                                bias=bias[i],\n                                dropout=dropouts[i],\n                                activation_func=activation_funcs[i],\n                                normalizer=normalizers[i]))\n\n            self.output = nn.Linear(neurons[-1], out_features, bias[-1])\n        else:\n            self.output = nn.Linear(in_features, out_features, bias)\n\n    def _check_input(self, i):\n        if isinstance(i, Sequence):\n            if len(i) != self._h_layers:\n                raise RuntimeError(f'number of parameter not consistent with number of layers, '\n                                   f'input is {len(i)} but need to be {self._h_layers}')\n            return tuple(i)\n        else:\n            return tuple([i] * self._h_layers)\n\n    def forward(self, x: Any) -> Any:\n        for i in range(self._h_layers):\n            x = getattr(self, f'layer_{i}')(x)\n        return self.output(x)\n"
  },
  {
    "path": "xenonpy/model/training/__init__.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom .checker import *\nfrom .clip_grad import *\nfrom .loss import *\nfrom .lr_scheduler import *\nfrom .optimizer import *\nfrom .trainer import *\n"
  },
  {
    "path": "xenonpy/model/training/base.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom inspect import signature\nfrom typing import NamedTuple, Tuple, Any, OrderedDict, Union, Dict, Iterable\n\nimport torch\nfrom sklearn.base import BaseEstimator\nfrom torch.optim import Optimizer  # noqa\nfrom torch.optim.lr_scheduler import _LRScheduler  # noqa\n\nfrom xenonpy.utils import TimedMetaClass, camel_to_snake\n\n__all__ = ['BaseRunner', 'BaseLRScheduler', 'BaseOptimizer', 'BaseExtension']\n\n\n\nclass BaseExtension(object):\n\n    def before_proc(self, trainer: 'BaseRunner' = None, is_training: bool = True, *_dependence: 'BaseExtension') -> None:\n        pass\n\n    def input_proc(self, x_in, y_in, *_dependence: 'BaseExtension') -> Tuple[Any, Any]:\n        return x_in, y_in\n\n    def step_forward(self, step_info: OrderedDict[Any, int], trainer: 'BaseRunner' = None, is_training: bool = True,\n                     *_dependence: 'BaseExtension') -> None:\n        pass\n\n    def output_proc(self, y_pred, y_true, trainer: 'BaseRunner' = None, is_training: bool = True,\n                    *_dependence: 'BaseExtension') -> Tuple[Any, Any]:\n        return y_pred, y_true\n\n    def after_proc(self, trainer: 'BaseRunner' = None, is_training: bool = True, *_dependence: 'BaseExtension') -> None:\n        pass\n\n    def on_reset(self, trainer: 'BaseRunner' = None, is_training: bool = True, *_dependence: 'BaseExtension') -> None:\n        pass\n\n    def on_checkpoint(self, checkpoint: NamedTuple, trainer: 'BaseRunner' = None, is_training: bool = True,\n                      *_dependence: 'BaseExtension') -> None:\n        pass\n\n\nclass BaseOptimizer(object):\n\n    def __init__(self, optimizer, **kwargs):\n        self._kwargs = kwargs\n        self._optimizer = optimizer\n\n    def __call__(self, params: Iterable) -> Optimizer:\n        \"\"\"\n\n        Parameters\n        ----------\n        params: Iterable\n            iterable of parameters to optimize or dicts defining\n            parameter groups\n\n        Returns\n        -------\n        optimizer: Optimizer\n        \"\"\"\n        return self._optimizer(params, **self._kwargs)\n\n\nclass BaseLRScheduler(object):\n\n    def __init__(self, lr_scheduler, **kwargs):\n        self._kwargs = kwargs\n        self._lr_scheduler = lr_scheduler\n\n    def __call__(self, optimizer: Optimizer) -> _LRScheduler:\n        \"\"\"\n\n        Parameters\n        ----------\n        optimizer: Optimizer\n            Wrapped optimizer.\n\n        Returns\n        -------\n\n        \"\"\"\n        return self._lr_scheduler(optimizer, **self._kwargs)\n\n\nclass BaseRunner(BaseEstimator, metaclass=TimedMetaClass):\n    T_Extension_Dict = Dict[str, Tuple[BaseExtension, Dict[str, list]]]\n\n    def __init__(self, cuda: Union[bool, str, torch.device] = False):\n        self._device = self.check_device(cuda)\n        self._extensions: BaseRunner.T_Extension_Dict = {}\n\n    @property\n    def cuda(self):\n        return self._device\n\n    @staticmethod\n    def check_device(cuda: Union[bool, str, torch.device]) -> torch.device:\n        if isinstance(cuda, bool):\n            if cuda:\n                if torch.cuda.is_available():\n                    return torch.device('cuda')\n                else:\n                    raise RuntimeError('could not use CUDA on this machine')\n            else:\n                return torch.device('cpu')\n\n        if isinstance(cuda, str):\n            if 'cuda' in cuda:\n                if torch.cuda.is_available():\n                    return torch.device(cuda)\n                else:\n                    raise RuntimeError('could not use CUDA on this machine')\n            elif 'cpu' in cuda:\n                return torch.device('cpu')\n            else:\n                raise RuntimeError(\n                    'wrong device identifier'\n                    'see also: https://pytorch.org/docs/stable/tensor_attributes.html#torch.torch.device')\n\n        if isinstance(cuda, torch.device):\n            return cuda\n\n    @property\n    def device(self):\n        return self._device\n\n    @device.setter\n    def device(self, v):\n        self._device = self.check_device(v)\n\n    def _make_inject(self, injects, kwargs):\n        _kwargs = {k: self._extensions[k][0] for k in injects if k in self._extensions}\n        _kwargs.update({k: kwargs[k] for k in injects if k in kwargs})\n        return _kwargs\n\n    def input_proc(self, x_in, y_in=None, **kwargs):\n        for (ext, injects) in self._extensions.values():\n            _kwargs = self._make_inject(injects['input_proc'], kwargs)\n            x_in, y_in = ext.input_proc(x_in, y_in, **_kwargs)\n        return x_in, y_in\n\n    def output_proc(self, y_pred, y_true=None, **kwargs):\n        for (ext, injects) in self._extensions.values():\n            _kwargs = self._make_inject(injects['output_proc'], kwargs)\n            y_pred, y_true = ext.output_proc(y_pred, y_true, **_kwargs)\n        return y_pred, y_true\n\n    def _before_proc(self, **kwargs):\n        for (ext, injects) in self._extensions.values():\n            _kwargs = self._make_inject(injects['before_proc'], kwargs)\n            ext.before_proc(**_kwargs)\n\n    def _step_forward(self, **kwargs):\n        for (ext, injects) in self._extensions.values():\n            _kwargs = self._make_inject(injects['step_forward'], kwargs)\n            ext.step_forward(**_kwargs)\n\n    def _after_proc(self, **kwargs):\n        for (ext, injects) in self._extensions.values():\n            _kwargs = self._make_inject(injects['after_proc'], kwargs)\n            ext.after_proc(**_kwargs)\n\n    def _on_reset(self, **kwargs):\n        for (ext, injects) in self._extensions.values():\n            _kwargs = self._make_inject(injects['on_reset'], kwargs)\n            ext.on_reset(**_kwargs)\n\n    def _on_checkpoint(self, **kwargs):\n        for (ext, injects) in self._extensions.values():\n            _kwargs = self._make_inject(injects['on_checkpoint'], kwargs)\n            ext.on_checkpoint(**_kwargs)\n\n    def extend(self, *extension: BaseExtension) -> 'BaseRunner':\n        \"\"\"\n        Add training extensions to trainer.\n\n        Parameters\n        ----------\n        extension: BaseExtension\n            Extension.\n\n        \"\"\"\n\n        def _get_keyword_params(func) -> list:\n            sig = signature(func)\n            return [p.name for p in sig.parameters.values() if p.kind == p.POSITIONAL_OR_KEYWORD]\n\n        # merge exts to named_exts\n        for ext in extension:\n            name = camel_to_snake(ext.__class__.__name__)\n            methods = [\n                'before_proc', 'input_proc', 'step_forward', 'output_proc', 'after_proc', 'on_reset', 'on_checkpoint'\n            ]\n            dependencies = [_get_keyword_params(getattr(ext, m)) for m in methods]\n            dependency_inject = {k: v for k, v in zip(methods, dependencies)}\n\n            self._extensions[name] = (ext, dependency_inject)\n\n        return self\n\n    def remove_extension(self, *extension: str):\n        for name in extension:\n            if name in self._extensions:\n                del self._extensions[name]\n\n    def __getitem__(self, item):\n        return self._extensions[item][0]\n"
  },
  {
    "path": "xenonpy/model/training/checker.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom collections import OrderedDict\nfrom collections import defaultdict\nfrom pathlib import Path\nfrom typing import Any, Union, Dict, Callable, Tuple\n\nimport joblib\nimport pandas as pd\nimport torch\nfrom deprecated import deprecated\nfrom torch.nn import Module\n\nfrom xenonpy.model.training.base import BaseRunner\n\n__all__ = ['Checker']\n\n\nclass Checker(object):\n    \"\"\"\n    Check point.\n    \"\"\"\n\n    class __SL:\n        dump = torch.save\n        load = torch.load\n\n    def __init__(\n            self,\n            path: Union[Path, str] = None,\n            *,\n            increment: bool = False,\n            device: Union[bool, str, torch.device] = 'cpu',\n            default_handle: Tuple[Callable, str] = (joblib, '.pkl.z'),\n    ):\n        \"\"\"\n        Parameters\n        ----------\n        path: Union[Path, str]\n            Dir path for data access. Can be ``Path`` or ``str``.\n            Given a relative path will be resolved to abstract path automatically.\n        increment : bool\n            Set to ``True`` to prevent the potential risk of overwriting.\n            Default ``False``.\n        \"\"\"\n        if path is None:\n            path = Path().cwd().name\n            self._path = Path.cwd() / path\n        else:\n            self._path = Path.cwd() / path\n        if increment:\n            i = 1\n            while Path(f'{path}@{i}').exists():\n                i += 1\n            self._path = Path.cwd() / f'{path}@{i}'\n        self._path.mkdir(parents=True, exist_ok=True)\n        # self._path = self._path.resolve()\n        self._device = BaseRunner.check_device(device)\n        self._handle = default_handle\n\n        self._files: Dict[str, str] = defaultdict(str)\n        self._make_file_index()\n\n    @classmethod\n    @deprecated('This method is rotten and will be removed in v1.0.0, use `Checker(<model path>)` instead')\n    def load(cls, model_path):\n        return cls(model_path)\n\n    @property\n    def path(self):\n        return str(self._path)\n\n    @property\n    def files(self):\n        return list(self._files.keys())\n\n    @property\n    def model_name(self):\n        \"\"\"\n\n        Returns\n        -------\n        str\n            Model name.\n        \"\"\"\n        return self._path.name\n\n    @property\n    def model_structure(self):\n        structure = self['model_structure']\n        return structure\n\n    @property\n    def training_info(self):\n        return self['training_info']\n\n    @property\n    def describe(self):\n        \"\"\"\n        Description for this model.\n\n        Returns\n        -------\n        dict\n            Description.\n        \"\"\"\n        return self['describe']\n\n    @property\n    def model(self):\n        \"\"\"\n\n        Returns\n        -------\n        model: :class:`torch.nn.Module`\n            A pytorch model.\n        \"\"\"\n        if (self._path / 'model.pth.m').exists():\n            model = torch.load(str(self._path / 'model.pth.m'), map_location=self._device)\n            state = self.final_state\n\n            if state is not None:\n                try:\n                    model.load_state_dict(state)\n                except torch.nn.modules.module.ModuleAttributeError:\n                    # pytorch 1.6.0 compatability\n                    for _, m in model.named_modules():\n                        m._non_persistent_buffers_set = set()\n                    model.load_state_dict(state)\n                return model\n            else:\n                return model\n        return None\n\n    @model.setter\n    def model(self, model: Module):\n        \"\"\"\n        Set a model instance.\n\n        Parameters\n        ----------\n        model: :class:`torch.nn.Module`\n            Pytorch model instance.\n        \"\"\"\n        if isinstance(model, Module):\n            self(model=model)\n            self.init_state = model.state_dict()\n            self(model_structure=str(model))\n        else:\n            raise TypeError(f'except `torch.nn.Module` object but got {type(model)}')\n\n    @property\n    @deprecated('This property is rotten and will be removed in v1.0.0, use `checker.model` instead')\n    def trained_model(self):\n        if (self._path / 'trained_model.@1.pkl.z').exists():\n            return torch.load(str(self._path / 'trained_model.@1.pkl.z'), map_location=self._device)\n        else:\n            tmp = self.final_state\n            if tmp is not None:\n                model: torch.nn.Module = self.model\n                model.load_state_dict(tmp)\n                return model\n        return None\n\n    @property\n    def model_class(self):\n        if (self._path / 'model_class.pkl.z').exists():\n            return self['model_class']\n        return None\n\n    @property\n    def model_params(self):\n        if (self._path / 'model_params.pkl.z').exists():\n            return self['model_params']\n        return None\n\n    @property\n    def init_state(self):\n        if (self._path / 'init_state.pth.s').exists():\n            return torch.load(str(self._path / 'init_state.pth.s'), map_location=self._device)\n        return None\n\n    @init_state.setter\n    def init_state(self, state: OrderedDict):\n        if not isinstance(state, OrderedDict) or not state:\n            raise TypeError\n        for v in state.values():\n            if not isinstance(v, torch.Tensor):\n                raise TypeError()\n        self((Checker.__SL, '.pth.s'), init_state=state)\n\n    @property\n    def final_state(self):\n        if (self._path / 'final_state.pth.s').exists():\n            return torch.load(str(self._path / 'final_state.pth.s'), map_location=self._device)\n        return None\n\n    @final_state.setter\n    def final_state(self, state: OrderedDict):\n        if not isinstance(state, OrderedDict) or not state:\n            raise TypeError\n        for v in state.values():\n            if not isinstance(v, torch.Tensor):\n                raise TypeError()\n        self((Checker.__SL, '.pth.s'), final_state=state)\n\n    def _make_file_index(self):\n\n        for f in [f for f in self._path.iterdir() if f.match('*.pkl.*') or f.match('*.pd.*') or f.match('*.pth.*')]:\n            # select data\n            fn = '.'.join(f.name.split('.')[:-2])\n            self._files[fn] = str(f)\n\n    def _save_data(self, data: Any, filename: str, handle) -> str:\n        if isinstance(data, pd.DataFrame):\n            file = str(self._path / (filename + '.pd.xz'))\n            self._files[filename] = file\n            pd.to_pickle(data, file)\n        elif isinstance(data, (torch.Tensor, torch.nn.Module)):\n            file = str(self._path / (filename + '.pth.m'))\n            self._files[filename] = file\n            torch.save(data, file)\n        else:\n            file = str(self._path / (filename + handle[1]))\n            self._files[filename] = file\n            handle[0].dump(data, file)\n\n        return file\n\n    def _load_data(self, file: str, handle):\n        fp = self._files[file]\n        if fp == '':\n            return None\n        fp_ = Path(fp)\n        if not fp_.exists():\n            return None\n        patten = fp_.name.split('.')[-2]\n        if patten == 'pd':\n            return pd.read_pickle(fp)\n        if patten == 'pth':\n            return torch.load(fp, map_location=self._device)\n        if patten == 'pkl':\n            return joblib.load(fp)\n        else:\n            return handle.load(fp)\n\n    def __getattr__(self, name: str):\n        \"\"\"\n        Return sub-dataset.\n\n        Parameters\n        ----------\n        name: str\n            Dataset name.\n\n        Returns\n        -------\n        self\n        \"\"\"\n        if name == 'checkpoints':\n            sub_set = self.__class__(self._path / name, increment=False, device=self._device)\n            setattr(self, f'{name}', sub_set)\n            return sub_set\n\n        raise AttributeError(f'no such attribute named {name}')\n\n    def __getitem__(self, item):\n\n        if isinstance(item, str):\n            return self._load_data(item, self._handle[0])\n        else:\n            raise KeyError(f'{item}')\n\n    def __call__(self, handle=None, **named_data: Any):\n        \"\"\"\n        Save data with or without name.\n        Data with same name will not be overwritten.\n\n        Parameters\n        ----------\n        handle: Tuple[Callable, str]\n        named_data: dict\n            Named data as k,v pair.\n\n        \"\"\"\n        if handle is None:\n            handle = self._handle\n\n        for k, v in named_data.items():\n            self._save_data(v, k, handle)\n\n    def set_checkpoint(self, **kwargs):\n        self.checkpoints((Checker.__SL, '.pth.s'), **kwargs)\n\n    def __repr__(self):\n        cont_ls = ['<{}> includes:'.format(self.__class__.__name__)]\n\n        for k, v in self._files.items():\n            cont_ls.append('\"{}\": {}'.format(k, v))\n\n        return '\\n'.join(cont_ls)\n"
  },
  {
    "path": "xenonpy/model/training/clip_grad.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom torch.nn.utils import clip_grad_norm_, clip_grad_value_\n\n__all__ = ['ClipNorm', 'ClipValue']\n\n\nclass ClipNorm(object):\n\n    def __init__(self, max_norm, norm_type=2):\n        r\"\"\"Clips gradient norm of an iterable of parameters.\n\n        The norm is computed over all gradients together, as if they were\n        concatenated into a single vector. Gradients are modified in-place.\n\n        Arguments:\n            max_norm (float or int): max norm of the gradients\n            norm_type (float or int): type of the used p-norm. Can be ``'inf'`` for\n                infinity norm.\n\n        Returns:\n            Total norm of the parameters (viewed as a single vector).\n        \"\"\"\n        self.norm_type = norm_type\n        self.max_norm = max_norm\n\n    def __call__(self, params):\n        clip_grad_norm_(parameters=params, max_norm=self.max_norm, norm_type=self.norm_type)\n\n\nclass ClipValue(object):\n\n    def __init__(self, clip_value):\n        r\"\"\"Clips gradient of an iterable of parameters at specified value.\n\n        Gradients are modified in-place.\n\n        Arguments:\n            clip_value (float or int): maximum allowed value of the gradients.\n                The gradients are clipped in the range\n                :math:`\\left[\\text{-clip\\_value}, \\text{clip\\_value}\\right]`\n        \"\"\"\n        self.clip_value = clip_value\n\n    def __call__(self, params):\n        clip_grad_value_(parameters=params, clip_value=self.clip_value)\n"
  },
  {
    "path": "xenonpy/model/training/dataset/__init__.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom .array import *\nfrom .cgcnn import *\n"
  },
  {
    "path": "xenonpy/model/training/dataset/array.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom typing import Union\n\nimport numpy as np\nimport pandas as pd\nimport torch\nfrom torch.utils.data import TensorDataset\nfrom typing import Sequence, Union\n\n__all__ = ['ArrayDataset']\n\n\nclass ArrayDataset(TensorDataset):\n    def __init__(self,\n                 *array: Union[np.ndarray, pd.DataFrame, pd.Series,\n                               torch.Tensor],\n                 dtypes: Union[None, Sequence[torch.dtype]] = None):\n        if dtypes is None:\n            dtypes = [torch.get_default_dtype()] * len(array)\n        if len(dtypes) != len(array):\n            raise ValueError('length of dtypes not equal to length of array')\n\n        array = [\n            self._convert(data, dtype) for data, dtype in zip(array, dtypes)\n        ]\n        super().__init__(*array)\n\n    @staticmethod\n    def _convert(data, dtype):\n        if isinstance(data, torch.Tensor):\n            return data\n        if isinstance(data, (pd.DataFrame, pd.Series)):\n            data = data.values\n        if isinstance(data, np.ndarray):\n            data = torch.from_numpy(data)\n        if not isinstance(data, torch.Tensor):\n            raise RuntimeError(\n                'input must be pd.DataFrame, pd.Series, np.ndarray, or torch.Tensor but got %s'\n                % data.__class__)\n\n        return data.to(dtype)\n"
  },
  {
    "path": "xenonpy/model/training/dataset/cgcnn.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom typing import Union\n\nimport numpy as np\nimport pandas as pd\nimport torch\nfrom torch.utils.data import Dataset\n\n__all__ = ['CrystalGraphDataset']\n\n\nclass CrystalGraphDataset(Dataset):\n    \"\"\"\n\n    Parameters\n    ----------\n\n    root_dir: str\n        The path to the root directory of the dataset\n    max_num_nbr: int\n        The maximum number of neighbors while constructing the crystal graph\n    radius: float\n        The cutoff radius for searching neighbors\n    dmin: float\n        The minimum distance for constructing GaussianDistance\n    step: float\n        The step size for constructing GaussianDistance\n    random_seed: int or None\n        Random seed for shuffling the dataset\n\n    Returns\n    -------\n\n    atom_fea: torch.Tensor shape (n_i, atom_fea_len)\n    nbr_fea: torch.Tensor shape (n_i, M, nbr_fea_len)\n    nbr_fea_idx: torch.LongTensor shape (n_i, M)\n    target: torch.Tensor shape (1, )\n    cif_id: str or int\n    \"\"\"\n\n    def __init__(self, crystal_features: Union[pd.DataFrame, np.ndarray],\n                 targets: Union[pd.DataFrame, np.ndarray] = None):\n        if isinstance(crystal_features, pd.DataFrame):\n            crystal_features = crystal_features.values\n        if not isinstance(crystal_features, np.ndarray):\n            raise RuntimeError('<crystal_features> must be pd.DataFrame or np.ndarray')\n        self.crystal_features = crystal_features\n\n        if targets is not None:\n            if isinstance(targets, pd.DataFrame):\n                targets = targets.values\n            if not isinstance(targets, np.ndarray):\n                raise RuntimeError('<targets> must be pd.DataFrame, pd.Series or np.ndarray')\n        self.targets = targets\n\n    def __len__(self):\n        return self.crystal_features.shape[0]\n\n    def __getitem__(self, idx):\n        features = self.crystal_features[idx]\n        if self.targets is not None:\n            target = self.targets[idx]\n            return (features[0], features[1], features[2]), torch.Tensor(target)\n        return features[0], features[1], features[2]\n\n    @staticmethod\n    def collate_fn(dataset_list):\n        \"\"\"\n        Collate a list of data and return a batch for predicting crystal\n        properties.\n\n        Parameters\n        ----------\n\n        dataset_list: list of tuples for each data point.\n          (atom_fea, nbr_fea, nbr_fea_idx, target)\n\n          atom_fea: torch.Tensor shape (n_i, atom_fea_len)\n          nbr_fea: torch.Tensor shape (n_i, M, nbr_fea_len)\n          nbr_fea_idx: torch.LongTensor shape (n_i, M)\n          target: torch.Tensor shape (1, )\n          cif_id: str or int\n\n        Returns\n        -------\n        N = sum(n_i); N0 = sum(i)\n\n        batch_atom_fea: torch.Tensor shape (N, orig_atom_fea_len)\n          Atom features from atom type\n        batch_nbr_fea: torch.Tensor shape (N, M, nbr_fea_len)\n          Bond features of each atom's M neighbors\n        batch_nbr_fea_idx: torch.LongTensor shape (N, M)\n          Indices of M neighbors of each atom\n        crystal_atom_idx: list of torch.LongTensor of length N0\n          Mapping from the crystal idx to atom idx\n        target: torch.Tensor shape (N, 1)\n          Target value for prediction\n        batch_cif_ids: list\n        \"\"\"\n\n        def _batch():\n            batch_atom_fea.append(atom_fea)\n            batch_nbr_fea.append(nbr_fea)\n            batch_nbr_fea_idx.append(nbr_fea_idx + base_idx)\n            new_idx = torch.LongTensor(np.arange(n_i) + base_idx)\n            crystal_atom_idx.append(new_idx)\n\n        batch_atom_fea, batch_nbr_fea, batch_nbr_fea_idx = [], [], []\n        crystal_atom_idx, batch_target = [], []\n        base_idx = 0\n\n        if len(dataset_list[0]) == 2:\n            for i, ((atom_fea, nbr_fea, nbr_fea_idx), target) in enumerate(dataset_list):\n                n_i = atom_fea.shape[0]  # number of atoms for this crystal\n                _batch()\n                base_idx += n_i\n                batch_target.append(target)\n            return (torch.cat(batch_atom_fea, dim=0),\n                    torch.cat(batch_nbr_fea, dim=0),\n                    torch.cat(batch_nbr_fea_idx, dim=0),\n                    crystal_atom_idx), torch.stack(batch_target, dim=0)\n\n        else:\n            for i, (atom_fea, nbr_fea, nbr_fea_idx) in enumerate(dataset_list):\n                n_i = atom_fea.shape[0]  # number of atoms for this crystal\n                _batch()\n                base_idx += n_i\n            return (torch.cat(batch_atom_fea, dim=0),\n                    torch.cat(batch_nbr_fea, dim=0),\n                    torch.cat(batch_nbr_fea_idx, dim=0),\n                    crystal_atom_idx)\n"
  },
  {
    "path": "xenonpy/model/training/extension/__init__.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom .persist import *\nfrom .tensor_convert import *\nfrom .validator import *\n"
  },
  {
    "path": "xenonpy/model/training/extension/persist.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom copy import deepcopy\nfrom datetime import datetime, timedelta\nfrom pathlib import Path\nfrom platform import version as sys_ver\nfrom sys import version as py_ver\nfrom typing import Union, Callable, Any, OrderedDict\n\nimport numpy as np\nimport torch\n\nfrom xenonpy import __version__\nfrom xenonpy.model.training import Trainer, Checker\nfrom xenonpy.model.training.base import BaseExtension, BaseRunner\n\n__all__ = ['Persist']\n\n\nclass Persist(BaseExtension):\n    \"\"\"\n    Trainer extension for data persistence\n    \"\"\"\n\n    def __init__(self,\n                 path: Union[Path, str] = None,\n                 *,\n                 model_class: Callable = None,\n                 model_params: Union[tuple, dict, any] = None,\n                 increment: bool = False,\n                 sync_training_step: bool = False,\n                 only_best_states: bool = False,\n                 no_model_saving: bool = False,\n                 **describe: Any):\n        \"\"\"\n\n        Parameters\n        ----------\n        path\n            Path for model saving.\n        model_class\n            A factory function for model reconstructing.\n            In most case this is the model class inherits from :class:`torch.nn.Module`\n        model_params\n            The parameters for model reconstructing.\n            This can be anything but in general this is a dict which can be used as kwargs parameters.\n        increment\n            If ``True``, dir name of path will be decorated with a auto increment number,\n            e.g. use ``model_dir@1`` for ``model_dir``.\n        sync_training_step\n            If ``True``, will save ``trainer.training_info`` at each iteration.\n            Default is ``False``, only save ``trainer.training_info`` at each epoch.\n        only_best_states\n            If ``True``, will only save the models with the best states in terms of each of the criteria.\n        no_model_saving\n            Indicate whether to save the connected model and checkpoints.\n        describe:\n            Any other information to describe this model.\n            These information will be saved under model dir by name ``describe.pkl.z``.\n        \"\"\"\n        self._model_class: Callable = model_class\n        self._model_params: Union[list, dict] = model_params\n        self.sync_training_step = sync_training_step\n        self.only_best_states = only_best_states\n        self._increment = increment\n        self._describe = describe\n        self._describe_ = None\n        self._checker: Union[Checker, None] = None\n        self._tmp_args: list = []\n        self._tmp_kwargs: dict = {}\n        self._epoch_count = 0\n        self._no_model_saving = no_model_saving\n        self.path = path\n\n    @property\n    def describe(self):\n        if self._checker is None:\n            raise ValueError('can not access property `describe` before training')\n        return self._checker.describe\n\n    @property\n    def no_model_saving(self):\n        return self._no_model_saving\n\n    @property\n    def path(self):\n        if self._checker is None:\n            raise ValueError('can not access property `path` before training')\n        return str(self._checker.path)\n\n    @path.setter\n    def path(self, path: Union[Path, str]):\n        if self._checker is not None:\n            raise ValueError('can not reset property `path` after training')\n        self._path = path\n\n    @property\n    def model_structure(self):\n        return self._checker.model_structure\n\n    def get_checkpoint(self, id_: str = None):\n        if id_ is not None:\n            return self._checker.checkpoints[id_]\n        return self._checker.checkpoints.files\n\n    def __call__(self, handle: Any = None, **kwargs: Any):\n        if self._checker is None:\n            raise RuntimeError('calling of this method only after the model training')\n        self._checker(handle=handle, **kwargs)\n\n    def __getitem__(self, item):\n        return self._checker[item]\n\n    def on_checkpoint(self,\n                      checkpoint: Trainer.checkpoint_tuple,\n                      _trainer: BaseRunner = None,\n                      _is_training: bool = True,\n                      *_dependence: 'BaseExtension') -> None:\n        if self._no_model_saving:\n            return None\n        if self.only_best_states:\n            tmp = checkpoint.id.split('_')\n            if tmp[-1] == '1':\n                key = '_'.join(tmp[:-1])\n                value = deepcopy(checkpoint._asdict())\n                self._checker.set_checkpoint(**{key: value})\n        else:\n            key = checkpoint.id\n            value = deepcopy(checkpoint._asdict())\n            self._checker.set_checkpoint(**{key: value})\n\n    def step_forward(self,\n                     step_info: OrderedDict[Any, int],\n                     trainer: Trainer = None,\n                     _is_training: bool = True,\n                     *_dependence: BaseExtension) -> None:\n        if self.sync_training_step:\n            training_info = trainer.training_info\n            if training_info is not None:\n                self._checker(training_info=training_info)\n        else:\n            epoch = step_info['i_epoch']\n            if epoch > self._epoch_count:\n                training_info = trainer.training_info\n                if training_info is not None:\n                    self._epoch_count = epoch\n                    self._checker(training_info=training_info)\n\n    def before_proc(self, trainer: Trainer = None, _is_training: bool = True, *_dependence: BaseExtension) -> None:\n        self._checker = Checker(self._path, increment=self._increment)\n        if self._model_class is not None:\n            self._checker(model_class=self._model_class)\n        if self._model_params is not None:\n            self._checker(model_params=self._model_params)\n        if not self._no_model_saving:\n            self._checker.model = trainer.model\n        self._describe_ = dict(\n            python=py_ver,\n            system=sys_ver(),\n            numpy=np.__version__,\n            torch=torch.__version__,\n            xenonpy=__version__,\n            device=str(trainer.device),\n            start=datetime.now().strftime('%Y/%m/%d %H:%M:%S'),\n            finish='N/A',\n            time_elapsed='N/A',\n            **self._describe,\n        )\n        self._checker(describe=self._describe_)\n\n    def after_proc(self, trainer: Trainer = None, _is_training: bool = True, *_dependence: 'BaseExtension') -> None:\n        self._describe_.update(finish=datetime.now().strftime('%Y/%m/%d %H:%M:%S'),\n                               time_elapsed=str(timedelta(seconds=trainer.timer.elapsed)))\n        self._checker.final_state = trainer.model.state_dict()\n        self._checker(\n            training_info=trainer.training_info,\n            describe=self._describe_,\n        )\n"
  },
  {
    "path": "xenonpy/model/training/extension/tensor_convert.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\nfrom typing import Union, Tuple, Any, Sequence\nfrom scipy.special import softmax\n\nimport numpy as np\nimport pandas as pd\nimport torch\n\nfrom xenonpy.model.training import Trainer\nfrom xenonpy.model.training.base import BaseExtension\n\n__all__ = ['TensorConverter']\n\nT_Data = Union[pd.DataFrame, pd.Series, np.ndarray, torch.Tensor]\n\n\nclass TensorConverter(BaseExtension):\n\n    def __init__(self,\n                 *,\n                 x_dtype: Union[torch.dtype, Sequence[torch.dtype]] = None,\n                 y_dtype: Union[torch.dtype, Sequence[torch.dtype]] = None,\n                 empty_cache: bool = False,\n                 auto_reshape: bool = True,\n                 argmax: bool = False,\n                 probability: bool = False):\n        \"\"\"\n        Covert tensor like data into :class:`torch.Tensor` automatically.\n        \n        Parameters\n        ----------\n        x_dtype\n            The :class:`torch.dtype`s of **X** data.\n            If ``None``, will convert all data into ``torch.get_default_dtype()`` type.\n            Can be a tuple of ``torch.dtype`` when your **X** is a tuple.\n        y_dtype\n            The :class:`torch.dtype`s of **y** data.\n            If ``None``, will convert all data into ``torch.get_default_dtype()`` type.\n            Can be a tuple of ``torch.dtype`` when your **y** is a tuple.\n        empty_cache\n            See Also: https://pytorch.org/docs/stable/cuda.html#torch.cuda.empty_cache\n        auto_reshape\n            Reshape tensor to (-1, 1) if tensor shape is (n,). Default ``True``.\n        argmax\n            Apply ``np.argmax(out, 1)`` on the output. This should only be used with classification model.\n            Default ``False``. If ``True``, will ignore ``probability`` parameter.\n        probability\n            Apply ``scipy.special.softmax`` on the output. This should only be used with classification model.\n            Default ``False``.\n        \"\"\"\n\n        self.argmax = argmax\n        self.empty_cache = empty_cache\n        self.probability = probability\n        self.auto_reshape = auto_reshape\n        if x_dtype is None:\n            self._x_dtype = torch.get_default_dtype()\n        else:\n            self._x_dtype = x_dtype\n\n        if y_dtype is None:\n            self._y_dtype = torch.get_default_dtype()\n        else:\n            self._y_dtype = y_dtype\n\n    @property\n    def argmax(self):\n        return self._argmax\n\n    @argmax.setter\n    def argmax(self, value):\n        self._argmax = value\n\n    @property\n    def empty_cache(self):\n        return self._empty_cache\n\n    @empty_cache.setter\n    def empty_cache(self, value):\n        self._empty_cache = value\n\n    @property\n    def auto_reshape(self):\n        return self._auto_shape\n\n    @auto_reshape.setter\n    def auto_reshape(self, value):\n        self._auto_shape = False if self.argmax or self.probability else value\n\n    @property\n    def probability(self):\n        return self._probability\n\n    @probability.setter\n    def probability(self, value):\n        self._probability = value\n\n    def _get_x_dtype(self, i=0):\n        if isinstance(self._x_dtype, tuple):\n            return self._x_dtype[i]\n        return self._x_dtype\n\n    def _get_y_dtype(self, i=0):\n        if isinstance(self._y_dtype, tuple):\n            return self._y_dtype[i]\n        return self._y_dtype\n\n    def input_proc(self, x_in: Union[Sequence[Union[torch.Tensor, pd.DataFrame, pd.Series, np.ndarray, Any]],\n                                     torch.Tensor, pd.DataFrame, pd.Series, np.ndarray, Any],\n                   y_in: Union[Sequence[Union[torch.Tensor, pd.DataFrame, pd.Series, np.ndarray,\n                                              Any]], torch.Tensor, pd.DataFrame, pd.Series, np.ndarray,\n                               Any], trainer: Trainer) -> Tuple[torch.Tensor, torch.Tensor]:\n        \"\"\"\n        Convert data to :class:`torch.Tensor`.\n\n        Parameters\n        ----------\n        y_in\n        x_in\n\n        Returns\n        -------\n        Union[Any, Tuple[Any, Any]]\n\n        \"\"\"\n\n        def _convert(t, dtype):\n            if t is None:\n                return t\n\n            # if tensor, do nothing\n            if isinstance(t, torch.Tensor):\n                return t.to(trainer.device, non_blocking=trainer.non_blocking)\n            # if pandas, turn to numpy\n            if isinstance(t, (pd.DataFrame, pd.Series)):\n                t = t.values\n            # if numpy, turn to tensor\n            if isinstance(t, np.ndarray):\n                t = torch.from_numpy(t).to(dtype)\n            # return others\n            if not isinstance(t, torch.Tensor):\n                return t\n            # reshape (1,) to (-1, 1)\n            if len(t.size()) == 1 and self.auto_reshape:\n                t = t.unsqueeze(1)\n            return t.to(trainer.device, non_blocking=trainer.non_blocking)\n\n        if isinstance(x_in, Sequence):\n            x_in = tuple([_convert(t, self._get_x_dtype(i)) for i, t in enumerate(x_in)])\n        else:\n            x_in = _convert(x_in, self._get_x_dtype())\n\n        if isinstance(y_in, Sequence):\n            y_in = tuple([_convert(t, self._get_y_dtype(i)) for i, t in enumerate(y_in)])\n        else:\n            y_in = _convert(y_in, self._get_y_dtype())\n\n        return x_in, y_in\n\n    def step_forward(self):\n        if self._empty_cache:\n            torch.cuda.empty_cache()\n\n    def output_proc(\n        self,\n        y_pred: Union[Sequence[Union[torch.Tensor, np.ndarray, Any]], torch.Tensor, Any],\n        y_true: Union[Sequence[Union[torch.Tensor, np.ndarray, Any]], torch.Tensor, Any, None],\n        is_training: bool,\n    ):\n        \"\"\"\n        Convert :class:`torch.Tensor` to :class:`numpy.ndarray`.\n\n        Parameters\n        ----------\n        y_pred: Union[torch.Tensor, Tuple[torch.Tensor]]\n        y_true : Union[torch.Tensor, Tuple[torch.Tensor]]\n        is_training: bool\n            Specify whether the model in the training mode.\n\n        \"\"\"\n\n        def _convert(y_, argmax_=False, proba_=False):\n            if y_ is None:\n                return y_\n            else:\n                y_ = y_.detach().cpu().numpy()\n            if argmax_:\n                return np.argmax(y_, 1)\n            if proba_:\n                return softmax(y_, axis=1)\n            return y_\n\n        if not is_training:\n            if isinstance(y_pred, tuple):\n                return tuple([_convert(t, self._argmax, self._probability) for t in y_pred]), _convert(y_true)\n            else:\n                return _convert(y_pred, self._argmax, self._probability), _convert(y_true)\n        else:\n            return y_pred, y_true\n"
  },
  {
    "path": "xenonpy/model/training/extension/validator.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\nimport numpy as np\n\nfrom collections import OrderedDict\nfrom typing import Callable, Any, Dict, Union\n\nfrom xenonpy.model.utils import regression_metrics, classification_metrics\nfrom xenonpy.model.training import Trainer\nfrom xenonpy.model.training.base import BaseExtension\n\n__all__ = ['Validator']\n\n\nclass Validator(BaseExtension):\n    \"\"\"\n    Validator extension\n    \"\"\"\n\n    regress = 'regress'\n    classify = 'classify'\n\n    def __init__(self,\n                 metrics_func: Union[str, Callable[[Any, Any], Dict]],\n                 *,\n                 each_iteration: bool = True,\n                 early_stopping: int = None,\n                 trace_order: int = 1,\n                 warming_up: int = 0,\n                 **trace_criteria: Dict[str, float]):\n        \"\"\"\n\n        Parameters\n        ----------\n        metrics_func\n            Function for metrics calculation.\n            If ``str``, should be ``regress`` or ``classify`` which to specify the training types.\n            See :py:func:`xenonpy.model.utils.classification_metrics` and\n            :py:func:`xenonpy.model.utils.regression_metrics` to know the details.\n            you can also give the calculation function yourself.\n        each_iteration\n            If ``True``, validation will be executed every iteration.\n            Otherwise, only validate at each epoch done.\n            Default ``True``.\n        early_stopping\n            Set patience condition of early stopping condition.\n            This condition trace criteria setting by ``trace_criteria`` parameter.\n        trace_order\n            How many ranks of ``trace_criteria`` will be saved as checkpoint.\n            Checkpoint name follow the format ``criterion_rank``, e.g. ``mae_1``\n        warming_up\n            Validator do not set/update checkpoint before ``warming_up`` epochs.\n        trace_criteria\n            Validation criteria.\n            Should follow this formation: ``criterion=target``, e.g ``mae=0, corr=1``.\n            The names of criteria must be consistent with the output of``metrics_func``.\n        \"\"\"\n        if metrics_func == 'regress':\n            self.metrics_func = regression_metrics\n        elif metrics_func == 'classify':\n            self.metrics_func = classification_metrics\n        else:\n            self.metrics_func = metrics_func\n\n        self.warming_up = warming_up\n        self.each_iteration = each_iteration\n        self.patience = early_stopping + 1 if early_stopping is not None else None\n        self._count = early_stopping\n        self.order = trace_order\n\n        self._epoch_count = 0\n        self.trace = {}\n        self.trace_order = trace_order\n        self.trace_criteria = trace_criteria\n        self._set_trace(trace_criteria, trace_order)\n\n        self.from_dataset = False\n        self.train_loss = np.inf\n\n    @property\n    def warming_up(self):\n        return self._warming_up\n\n    @warming_up.setter\n    def warming_up(self, val: int):\n        if val < 0:\n            raise ValueError(\"`warming` up must equal or greater than 0\")\n        self._warming_up = val\n\n    def _set_trace(self, trace_metrics: dict, trace_order: int):\n        for name, target in trace_metrics.items():\n            self.trace[name] = (target, [np.inf] * trace_order)\n\n    def on_reset(self) -> None:\n        self._set_trace(self.trace_criteria, self.trace_order)\n\n    def before_proc(self, trainer: Trainer) -> None:\n        x_val, y_val = trainer.x_val, trainer.y_val\n        val_dataset = trainer.validate_dataset\n\n        if x_val is None and y_val is None and val_dataset is not None:\n            self.from_dataset = True\n        elif x_val is None or y_val is None:\n            raise RuntimeError('no data for validation')\n\n    def step_forward(self, trainer: Trainer, step_info: OrderedDict) -> None:\n\n        def _validate():\n            if self.from_dataset:\n                y_preds, y_trues = trainer.predict(dataset=trainer.validate_dataset)\n            else:\n                y_preds, y_trues = trainer.predict(trainer.x_val, trainer.y_val)\n\n            train_loss = step_info[trainer.loss_type]\n            if train_loss < self.train_loss:\n                self.train_loss = train_loss\n                self._count = self.patience\n\n            metrics = self.metrics_func(y_trues, y_preds)\n            for name, (target, current) in self.trace.items():\n                if name in metrics:\n                    score = np.abs(metrics[name] - target)\n                    if score < current[-1] and step_info['i_epoch'] >= self._warming_up:\n                        current.append(score)\n                        current.sort()\n                        current.pop()\n                        self._count = self.patience\n                        if self.order == 1:\n                            trainer.set_checkpoint(name)\n                        else:\n                            index = current.index(score) + 1\n                            for i in range(self.order, index, -1):\n                                if f'{name}_{i - 1}' in trainer.checkpoints:\n                                    trainer.checkpoints[f'{name}_{i}'] = trainer.checkpoints[f'{name}_{i - 1}']\n                            trainer.set_checkpoint(f'{name}_{index}')\n\n            if self.patience is not None:\n                self._count -= 1\n                if self._count == 0:\n                    trainer.early_stop(\n                        f'no improvement for {[k for k in self.trace]} since the last {self.patience} iterations, '\n                        f'finish training at iteration {trainer.total_iterations}')\n\n            step_info.update({f'val_{k}': v for k, v in metrics.items()})\n\n        if not self.each_iteration:\n            epoch = step_info['i_epoch']\n            if epoch > self._epoch_count:\n                self._epoch_count = epoch\n                _validate()\n        else:\n            _validate()\n"
  },
  {
    "path": "xenonpy/model/training/loss.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n__all__ = [\n    'NLLLoss', 'NLLLoss2d', 'L1Loss', 'MSELoss', 'CrossEntropyLoss', 'CTCLoss', 'PoissonNLLLoss', 'KLDivLoss',\n    'BCELoss', 'BCEWithLogitsLoss', 'MarginRankingLoss', 'HingeEmbeddingLoss', 'MultiLabelMarginLoss', 'SmoothL1Loss',\n    'SoftMarginLoss', 'MultiLabelSoftMarginLoss', 'CosineEmbeddingLoss', 'MultiMarginLoss', 'TripletMarginLoss',\n    'TripletMarginWithDistanceLoss'\n]\n\nfrom torch.nn.modules.loss import *\n"
  },
  {
    "path": "xenonpy/model/training/lr_scheduler.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\nfrom torch.optim import lr_scheduler\n\nfrom xenonpy.model.training.base import BaseLRScheduler\n\n__all__ = ['LambdaLR', 'StepLR', 'MultiStepLR', 'ExponentialLR', 'CosineAnnealingLR', 'ReduceLROnPlateau', 'CyclicLR']\n\n\nclass LambdaLR(BaseLRScheduler):\n\n    def __init__(self, *, lr_lambda, last_epoch=-1):\n        \"\"\"Sets the learning rate of each parameter group to the initial lr\n        times a given function. When last_epoch=-1, sets initial lr as lr.\n\n        Args:\n            lr_lambda (function or list): A function which computes a multiplicative\n                factor given an integer parameter epoch, or a list of such\n                functions, one for each group in optimizer.param_groups.\n            last_epoch (int): The index of last epoch. Default: -1.\n\n        Example:\n            >>> # Assuming optimizer has two groups.\n            >>> lambda1 = lambda epoch: epoch // 30\n            >>> lambda2 = lambda epoch: 0.95 ** epoch\n            >>> scheduler = LambdaLR(lr_lambda=[lambda1, lambda2])\n            >>> scheduler(optimizer)\n            >>> for epoch in range(100):\n            >>>     train(...)\n            >>>     validate(...)\n            >>>     scheduler.step(),\n        \"\"\"\n        super().__init__(lr_scheduler.LambdaLR, lr_lambda=lr_lambda, last_epoch=last_epoch)\n\n\nclass StepLR(BaseLRScheduler):\n\n    def __init__(self, *, step_size, gamma=0.1, last_epoch=-1):\n        \"\"\"Decays the learning rate of each parameter group by gamma every\n        step_size epochs. Notice that such decay can happen simultaneously with\n        other changes to the learning rate from outside this scheduler. When\n        last_epoch=-1, sets initial lr as lr.\n\n        Args:\n            step_size (int): Period of learning rate decay.\n            gamma (float): Multiplicative factor of learning rate decay.\n                Default: 0.1.\n            last_epoch (int): The index of last epoch. Default: -1.\n\n        Example:\n            >>> # Assuming optimizer uses lr = 0.05 for all groups\n            >>> # lr = 0.05     if epoch < 30\n            >>> # lr = 0.005    if 30 <= epoch < 60\n            >>> # lr = 0.0005   if 60 <= epoch < 90\n            >>> # ...\n            >>> scheduler = StepLR(step_size=30, gamma=0.1)\n            >>> scheduler(optimizer)\n            >>> for epoch in range(100):\n            >>>     train(...)\n            >>>     validate(...)\n            >>>     scheduler.step()\n        \"\"\"\n        super().__init__(lr_scheduler.StepLR, step_size=step_size, gamma=gamma, last_epoch=last_epoch)\n\n\nclass MultiStepLR(BaseLRScheduler):\n\n    def __init__(self, *, milestones, gamma=0.1, last_epoch=-1):\n        \"\"\"Decays the learning rate of each parameter group by gamma once the\n        number of epoch reaches one of the milestones. Notice that such decay can\n        happen simultaneously with other changes to the learning rate from outside\n        this scheduler. When last_epoch=-1, sets initial lr as lr.\n\n        Args:\n            milestones (list): List of epoch indices. Must be increasing.\n            gamma (float): Multiplicative factor of learning rate decay.\n                Default: 0.1.\n            last_epoch (int): The index of last epoch. Default: -1.\n\n        Example:\n            >>> # Assuming optimizer uses lr = 0.05 for all groups\n            >>> # lr = 0.05     if epoch < 30\n            >>> # lr = 0.005    if 30 <= epoch < 80\n            >>> # lr = 0.0005   if epoch >= 80\n            >>> scheduler = MultiStepLR(milestones=[30,80], gamma=0.1)\n            >>> scheduler(optimizer)\n            >>> for epoch in range(100):\n            >>>     train(...)\n            >>>     validate(...)\n            >>>     scheduler.step(),\n        \"\"\"\n        super().__init__(lr_scheduler.MultiStepLR, milestones=milestones, gamma=gamma, last_epoch=last_epoch)\n\n\nclass ExponentialLR(BaseLRScheduler):\n\n    def __init__(self, *, gamma, last_epoch=-1):\n        \"\"\"Decays the learning rate of each parameter group by gamma every epoch.\n        When last_epoch=-1, sets initial lr as lr.\n\n        Args:\n            gamma (float): Multiplicative factor of learning rate decay.\n            last_epoch (int): The index of last epoch. Default: -1.\n        \"\"\"\n        super().__init__(lr_scheduler.ExponentialLR, gamma=gamma, last_epoch=last_epoch)\n\n\nclass CosineAnnealingLR(BaseLRScheduler):\n\n    def __init__(self, *, T_max, eta_min=0, last_epoch=-1):\n        r\"\"\"Set the learning rate of each parameter group using a cosine annealing\n        schedule, where :math:`\\eta_{max}` is set to the initial lr and\n        :math:`T_{cur}` is the number of epochs since the last restart in SGDR:\n\n        .. math::\n            \\eta_{t+1} = \\eta_{min} + (\\eta_t - \\eta_{min})\\frac{1 +\n            \\cos(\\frac{T_{cur+1}}{T_{max}}\\pi)}{1 + \\cos(\\frac{T_{cur}}{T_{max}}\\pi)},\n            T_{cur} \\neq (2k+1)T_{max};\\\\\n            \\eta_{t+1} = \\eta_{t} + (\\eta_{max} - \\eta_{min})\\frac{1 -\n            \\cos(\\frac{1}{T_{max}}\\pi)}{2},\n            T_{cur} = (2k+1)T_{max}.\\\\\n\n        When last_epoch=-1, sets initial lr as lr. Notice that because the schedule\n        is defined recursively, the learning rate can be simultaneously modified\n        outside this scheduler by other operators. If the learning rate is set\n        solely by this scheduler, the learning rate at each step becomes:\n\n        .. math::\n            \\eta_t = \\eta_{min} + \\frac{1}{2}(\\eta_{max} - \\eta_{min})(1 +\n            \\cos(\\frac{T_{cur}}{T_{max}}\\pi))\n\n        It has been proposed in\n        `SGDR: Stochastic Gradient Descent with Warm Restarts`_. Note that this only\n        implements the cosine annealing part of SGDR, and not the restarts.\n\n        Args:\n           T_max (int): Maximum number of iterations.\n            eta_min (float): Minimum learning rate. Default: 0.\n            last_epoch (int): The index of last epoch. Default: -1.\n\n        .. _SGDR\\: Stochastic Gradient Descent with Warm Restarts:\n            https://arxiv.org/abs/1608.03983\n        \"\"\"\n        super().__init__(lr_scheduler.CosineAnnealingLR, T_max=T_max, eta_min=eta_min, last_epoch=last_epoch)\n\n\nclass ReduceLROnPlateau(BaseLRScheduler):\n\n    def __init__(self,\n                 *,\n                 mode='min',\n                 factor=0.1,\n                 patience=10,\n                 verbose=False,\n                 threshold=1e-4,\n                 threshold_mode='rel',\n                 cooldown=0,\n                 min_lr=0,\n                 eps=1e-8):\n        \"\"\"Reduce learning rate when a metric has stopped improving.\n        Models often benefit from reducing the learning rate by a factor\n        of 2-10 once learning stagnates. This scheduler reads a metrics\n        quantity and if no improvement is seen for a 'patience' number\n        of epochs, the learning rate is reduced.\n\n        Args:\n            mode (str): One of `min`, `max`. In `min` mode, lr will\n                be reduced when the quantity monitored has stopped\n                decreasing; in `max` mode it will be reduced when the\n                quantity monitored has stopped increasing. Default: 'min'.\n            factor (float): Factor by which the learning rate will be\n                reduced. new_lr = lr * factor. Default: 0.1.\n            patience (int): Number of epochs with no improvement after\n                which learning rate will be reduced. For example, if\n                `patience = 2`, then we will ignore the first 2 epochs\n                with no improvement, and will only decrease the LR after the\n                3rd epoch if the loss still hasn't improved then.\n                Default: 10.\n            verbose (bool): If ``True``, prints a message to stdout for\n                each update. Default: ``False``.\n            threshold (float): Threshold for measuring the new optimum,\n                to only focus on significant changes. Default: 1e-4.\n            threshold_mode (str): One of `rel`, `abs`. In `rel` mode,\n                dynamic_threshold = best * ( 1 + threshold ) in 'max'\n                mode or best * ( 1 - threshold ) in `min` mode.\n                In `abs` mode, dynamic_threshold = best + threshold in\n                `max` mode or best - threshold in `min` mode. Default: 'rel'.\n            cooldown (int): Number of epochs to wait before resuming\n                normal operation after lr has been reduced. Default: 0.\n            min_lr (float or list): A scalar or a list of scalars. A\n                lower bound on the learning rate of all param groups\n                or each group respectively. Default: 0.\n            eps (float): Minimal decay applied to lr. If the difference\n                between new and old lr is smaller than eps, the update is\n                ignored. Default: 1e-8.\n\n        \"\"\"\n        super().__init__(lr_scheduler.ReduceLROnPlateau,\n                         mode=mode,\n                         factor=factor,\n                         patience=patience,\n                         verbose=verbose,\n                         threshold=threshold,\n                         threshold_mode=threshold_mode,\n                         cooldown=cooldown,\n                         min_lr=min_lr,\n                         eps=eps)\n\n\nclass CyclicLR(BaseLRScheduler):\n\n    def __init__(self,\n                 *,\n                 base_lr,\n                 max_lr,\n                 step_size_up=2000,\n                 step_size_down=None,\n                 mode='triangular',\n                 gamma=1.,\n                 scale_fn=None,\n                 scale_mode='cycle',\n                 cycle_momentum=True,\n                 base_momentum=0.8,\n                 max_momentum=0.9,\n                 last_epoch=-1):\n        \"\"\"Sets the learning rate of each parameter group according to\n        cyclical learning rate policy (CLR). The policy cycles the learning\n        rate between two boundaries with a constant frequency, as detailed in\n        the paper `Cyclical Learning Rates for Training Neural Networks`_.\n        The distance between the two boundaries can be scaled on a per-iteration\n        or per-cycle basis.\n\n        Cyclical learning rate policy changes the learning rate after every batch.\n        `step` should be called after a batch has been used for training.\n\n        This class has three built-in policies, as put forth in the paper:\n\n        \"triangular\":\n            A basic triangular cycle w/ no amplitude scaling.\n        \"triangular2\":\n            A basic triangular cycle that scales initial amplitude by half each cycle.\n        \"exp_range\":\n            A cycle that scales initial amplitude by gamma**(cycle iterations) at each\n            cycle iteration.\n\n        This implementation was adapted from the github repo: `bckenstler/CLR`_\n\n        Args:\n            optimizer (Optimizer): Wrapped optimizer.\n            base_lr (float or list): Initial learning rate which is the\n                lower boundary in the cycle for each parameter group.\n            max_lr (float or list): Upper learning rate boundaries in the cycle\n                for each parameter group. Functionally,\n                it defines the cycle amplitude (max_lr - base_lr).\n                The lr at any cycle is the sum of base_lr\n                and some scaling of the amplitude; therefore\n                max_lr may not actually be reached depending on\n                scaling function.\n            step_size_up (int): Number of training iterations in the\n                increasing half of a cycle. Default: 2000\n            step_size_down (int): Number of training iterations in the\n                decreasing half of a cycle. If step_size_down is None,\n                it is set to step_size_up. Default: None\n            mode (str): One of {triangular, triangular2, exp_range}.\n                Values correspond to policies detailed above.\n                If scale_fn is not None, this argument is ignored.\n                Default: 'triangular'\n            gamma (float): Constant in 'exp_range' scaling function:\n                gamma**(cycle iterations)\n                Default: 1.0\n            scale_fn (function): Custom scaling policy defined by a single\n                argument lambda function, where\n                0 <= scale_fn(x) <= 1 for all x >= 0.\n                If specified, then 'mode' is ignored.\n                Default: None\n            scale_mode (str): {'cycle', 'iterations'}.\n                Defines whether scale_fn is evaluated on\n                cycle number or cycle iterations (training\n                iterations since start of cycle).\n                Default: 'cycle'\n            cycle_momentum (bool): If ``True``, momentum is cycled inversely\n                to learning rate between 'base_momentum' and 'max_momentum'.\n                Default: True\n            base_momentum (float or list): Initial momentum which is the\n                lower boundary in the cycle for each parameter group.\n                Default: 0.8\n            max_momentum (float or list): Upper momentum boundaries in the cycle\n                for each parameter group. Functionally,\n                it defines the cycle amplitude (max_momentum - base_momentum).\n                The momentum at any cycle is the difference of max_momentum\n                and some scaling of the amplitude; therefore\n                base_momentum may not actually be reached depending on\n                scaling function. Default: 0.9\n            last_epoch (int): The index of the last batch. This parameter is used when\n                resuming a training job. Since `step()` should be invoked after each\n                batch instead of after each epoch, this number represents the total\n                number of *batches* computed, not the total number of epochs computed.\n                When last_epoch=-1, the schedule is started from the beginning.\n                Default: -1\n\n        .. _Cyclical Learning Rates for Training Neural Networks: https://arxiv.org/abs/1506.01186\n        .. _bckenstler/CLR: https://github.com/bckenstler/CLR\n        \"\"\"\n        super().__init__(lr_scheduler.CyclicLR,\n                         base_lr=base_lr,\n                         max_lr=max_lr,\n                         step_size_up=step_size_up,\n                         step_size_down=step_size_down,\n                         mode=mode,\n                         gamma=gamma,\n                         scale_fn=scale_fn,\n                         scale_mode=scale_mode,\n                         cycle_momentum=cycle_momentum,\n                         base_momentum=base_momentum,\n                         max_momentum=max_momentum,\n                         last_epoch=last_epoch)\n"
  },
  {
    "path": "xenonpy/model/training/optimizer.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom torch import optim\n\nfrom xenonpy.model.training.base import BaseOptimizer\n\n__all__ = ['Adadelta', 'Adagrad', 'Adam', 'Adamax', 'ASGD', 'SGD', 'SparseAdam', 'RMSprop', 'Rprop', 'LBFGS']\n\n\nclass Adadelta(BaseOptimizer):\n\n    def __init__(self, *, lr=1.0, rho=0.9, eps=1e-06, weight_decay=0):\n        \"\"\"Implements Adadelta algorithm.\n\n        It has been proposed in `ADADELTA: An Adaptive Learning Rate Method`__.\n\n        Arguments:\n            rho (float, optional): coefficient used for computing a running average\n                of squared gradients (default: 0.9)\n            eps (float, optional): term added to the denominator to improve\n                numerical stability (default: 1e-6)\n            lr (float, optional): coefficient that scale delta before it is applied\n                to the parameters (default: 1.0)\n            weight_decay (float, optional): weight decay (L2 penalty) (default: 0)\n\n        __ https://arxiv.org/abs/1212.5701\n        \"\"\"\n        super().__init__(optim.Adadelta, lr=lr, rho=rho, eps=eps, weight_decay=weight_decay)\n\n\nclass Adagrad(BaseOptimizer):\n\n    def __init__(self, *, lr=0.01, lr_decay=0, weight_decay=0, initial_accumulator_value=0):\n        \"\"\"Implements Adagrad algorithm.\n\n        It has been proposed in `Adaptive Subgradient Methods for Online Learning\n        and Stochastic Optimization`_.\n\n        Arguments:\n            lr (float, optional): learning rate (default: 1e-2)\n            lr_decay (float, optional): learning rate decay (default: 0)\n            weight_decay (float, optional): weight decay (L2 penalty) (default: 0)\n\n        .. _Adaptive Subgradient Methods for Online Learning and Stochastic\n            Optimization: http://jmlr.org/papers/v12/duchi11a.html\n        \"\"\"\n        super().__init__(optim.Adagrad,\n                         lr=lr,\n                         lr_decay=lr_decay,\n                         weight_decay=weight_decay,\n                         initial_accumulator_value=initial_accumulator_value)\n\n\nclass Adam(BaseOptimizer):\n\n    def __init__(self, *, lr=1e-3, betas=(0.9, 0.999), eps=1e-8, weight_decay=0, amsgrad=False):\n        r\"\"\"Implements Adam algorithm.\n\n        It has been proposed in `Adam: A Method for Stochastic Optimization`_.\n        The implementation of the L2 penalty follows changes proposed in `Decoupled Weight Decay Regularization`_.\n\n        Arguments:\n            lr (float, optional): learning rate (default: 1e-3)\n            betas (Tuple[float, float], optional): coefficients used for computing\n                running averages of gradient and its square (default: (0.9, 0.999))\n            eps (float, optional): term added to the denominator to improve\n                numerical stability (default: 1e-8)\n            weight_decay (float, optional): weight decay (L2 penalty) (default: 0)\n            amsgrad (boolean, optional): whether to use the AMSGrad variant of this\n                algorithm from the paper `On the Convergence of Adam and Beyond`_\n                (default: False)\n\n        .. _Adam\\: A Method for Stochastic Optimization:\n            https://arxiv.org/abs/1412.6980\n        .. _Decoupled Weight Decay Regularization:\n            https://arxiv.org/abs/1711.05101\n        .. _On the Convergence of Adam and Beyond:\n            https://openreview.net/forum?id=ryQu7f-RZ\n        \"\"\"\n\n        super().__init__(optim.Adam, lr=lr, betas=betas, eps=eps, weight_decay=weight_decay, amsgrad=amsgrad)\n\n\nclass AdamW(BaseOptimizer):\n\n    def __init__(self, *, lr=1e-3, betas=(0.9, 0.999), eps=1e-8, weight_decay=0, amsgrad=False):\n        r\"\"\"Implements AdamW algorithm.\n\n        The original Adam algorithm was proposed in `Adam: A Method for Stochastic Optimization`_.\n        The AdamW variant was proposed in `Decoupled Weight Decay Regularization`_.\n\n        Arguments:\n            lr (float, optional): learning rate (default: 1e-3)\n            betas (Tuple[float, float], optional): coefficients used for computing\n                running averages of gradient and its square (default: (0.9, 0.999))\n            eps (float, optional): term added to the denominator to improve\n                numerical stability (default: 1e-8)\n            weight_decay (float, optional): weight decay (L2 penalty) (default: 0)\n            amsgrad (boolean, optional): whether to use the AMSGrad variant of this\n                algorithm from the paper `On the Convergence of Adam and Beyond`_\n                (default: False)\n\n        .. _Adam\\: A Method for Stochastic Optimization:\n            https://arxiv.org/abs/1412.6980\n        .. _Decoupled Weight Decay Regularization:\n            https://arxiv.org/abs/1711.05101\n        .. _On the Convergence of Adam and Beyond:\n            https://openreview.net/forum?id=ryQu7f-RZ\n        \"\"\"\n\n        super().__init__(optim.AdamW, lr=lr, betas=betas, eps=eps, weight_decay=weight_decay, amsgrad=amsgrad)\n\n\nclass SparseAdam(BaseOptimizer):\n\n    def __init__(self, *, lr=0.001, betas=(0.9, 0.999), eps=1e-08):\n        r\"\"\"Implements lazy version of Adam algorithm suitable for sparse tensors.\n\n        In this variant, only moments that show up in the gradient get updated, and\n        only those portions of the gradient get applied to the parameters.\n\n        Arguments:\n            lr (float, optional): learning rate (default: 1e-3)\n            betas (Tuple[float, float], optional): coefficients used for computing\n                running averages of gradient and its square (default: (0.9, 0.999))\n            eps (float, optional): term added to the denominator to improve\n                numerical stability (default: 1e-8)\n\n        .. _Adam\\: A Method for Stochastic Optimization:\n            https://arxiv.org/abs/1412.6980\n        \"\"\"\n\n        super().__init__(optim.SparseAdam, lr=lr, betas=betas, eps=eps)\n\n\nclass Adamax(BaseOptimizer):\n\n    def __init__(self, *, lr=0.002, betas=(0.9, 0.999), eps=1e-08, weight_decay=0):\n        \"\"\"Implements Adamax algorithm (a variant of Adam based on infinity norm).\n\n        It has been proposed in `Adam: A Method for Stochastic Optimization`__.\n\n        Arguments:\n            lr (float, optional): learning rate (default: 2e-3)\n            betas (Tuple[float, float], optional): coefficients used for computing\n                running averages of gradient and its square\n            eps (float, optional): term added to the denominator to improve\n                numerical stability (default: 1e-8)\n            weight_decay (float, optional): weight decay (L2 penalty) (default: 0)\n\n        __ https://arxiv.org/abs/1412.6980\n        \"\"\"\n\n        super().__init__(optim.Adamax, lr=lr, betas=betas, eps=eps, weight_decay=weight_decay)\n\n\nclass ASGD(BaseOptimizer):\n\n    def __init__(self, *, lr=0.002, lambd=0.0001, alpha=0.75, t0=1000000.0, weight_decay=0):\n        \"\"\"Implements Averaged Stochastic Gradient Descent.\n\n        It has been proposed in `Acceleration of stochastic approximation by\n        averaging`_.\n\n        Arguments:\n            lr (float, optional): learning rate (default: 1e-2)\n            lambd (float, optional): decay term (default: 1e-4)\n            alpha (float, optional): power for eta update (default: 0.75)\n            t0 (float, optional): point at which to start averaging (default: 1e6)\n            weight_decay (float, optional): weight decay (L2 penalty) (default: 0)\n\n        .. _Acceleration of stochastic approximation by averaging:\n            http://dl.acm.org/citation.cfm?id=131098\n        \"\"\"\n\n        super().__init__(optim.ASGD, lr=lr, lambd=lambd, alpha=alpha, t0=t0, weight_decay=weight_decay)\n\n\nclass LBFGS(BaseOptimizer):\n\n    def __init__(self,\n                 *,\n                 lr=1,\n                 max_iter=20,\n                 max_eval=None,\n                 tolerance_grad=1e-5,\n                 tolerance_change=1e-9,\n                 history_size=100,\n                 line_search_fn=None):\n        \"\"\"Implements L-BFGS algorithm.\n\n        .. warning::\n            This optimizer doesn't support per-parameter options and parameter\n            groups (there can be only one).\n\n        .. warning::\n            Right now all parameters have to be on a single device. This will be\n            improved in the future.\n\n        .. note::\n            This is a very memory intensive optimizer (it requires additional\n            ``param_bytes * (history_size + 1)`` bytes). If it doesn't fit in memory\n            try reducing the history size, or use a different algorithm.\n\n        Arguments:\n            lr (float): learning rate (default: 1)\n            max_iter (int): maximal number of iterations per optimization step\n                (default: 20)\n            max_eval (int): maximal number of function evaluations per optimization\n                step (default: max_iter * 1.25).\n            tolerance_grad (float): termination tolerance on first order optimality\n                (default: 1e-5).\n            tolerance_change (float): termination tolerance on function\n                value/parameter changes (default: 1e-9).\n            history_size (int): update history size (default: 100).\n        \"\"\"\n\n        super().__init__(optim.LBFGS,\n                         lr=lr,\n                         max_iter=max_iter,\n                         max_eval=max_eval,\n                         tolerance_grad=tolerance_grad,\n                         tolerance_change=tolerance_change,\n                         history_size=history_size,\n                         line_search_fn=line_search_fn)\n\n\nclass RMSprop(BaseOptimizer):\n\n    def __init__(self, *, lr=0.01, alpha=0.99, eps=1e-08, weight_decay=0, momentum=0, centered=False):\n        \"\"\"Implements RMSprop algorithm.\n\n        Proposed by G. Hinton in his\n        `course <http://www.cs.toronto.edu/~tijmen/csc321/slides/lecture_slides_lec6.pdf>`_.\n\n        The centered version first appears in `Generating Sequences\n        With Recurrent Neural Networks <https://arxiv.org/pdf/1308.0850v5.pdf>`_.\n\n        Arguments:\n            lr (float, optional): learning rate (default: 1e-2)\n            momentum (float, optional): momentum factor (default: 0)\n            alpha (float, optional): smoothing constant (default: 0.99)\n            eps (float, optional): term added to the denominator to improve\n                numerical stability (default: 1e-8)\n            centered (bool, optional) : if ``True``, compute the centered RMSProp,\n                the gradient is normalized by an estimation of its variance\n            weight_decay (float, optional): weight decay (L2 penalty) (default: 0)\n\n        \"\"\"\n\n        super().__init__(optim.RMSprop,\n                         lr=lr,\n                         alpha=alpha,\n                         eps=eps,\n                         weight_decay=weight_decay,\n                         momentum=momentum,\n                         centered=centered)\n\n\nclass Rprop(BaseOptimizer):\n\n    def __init__(self, *, lr=0.01, etas=(0.5, 1.2), step_sizes=(1e-06, 50)):\n        \"\"\"Implements the resilient backpropagation algorithm.\n\n        Arguments:\n            lr (float, optional): learning rate (default: 1e-2)\n            etas (Tuple[float, float], optional): pair of (etaminus, etaplis), that\n                are multiplicative increase and decrease factors\n                (default: (0.5, 1.2))\n            step_sizes (Tuple[float, float], optional): a pair of minimal and\n                maximal allowed step sizes (default: (1e-6, 50))\n        \"\"\"\n\n        super().__init__(optim.Rprop, lr=lr, etas=etas, step_sizes=step_sizes)\n\n\nclass SGD(BaseOptimizer):\n\n    def __init__(self, *, lr=0.01, momentum=0, dampening=0, weight_decay=0, nesterov=False):\n        r\"\"\"Implements stochastic gradient descent (optionally with momentum).\n\n        Nesterov momentum is based on the formula from\n        `On the importance of initialization and momentum in deep learning`__.\n\n        Args:\n            lr (float): learning rate\n            momentum (float, optional): momentum factor (default: 0)\n            weight_decay (float, optional): weight decay (L2 penalty) (default: 0)\n            dampening (float, optional): dampening for momentum (default: 0)\n            nesterov (bool, optional): enables Nesterov momentum (default: False)\n\n        Example:\n            >>> optimizer = torch.optim.SGD(lr=0.1, momentum=0.9)\n            >>> optimizer(model.parameters())\n            >>> optimizer.zero_grad()\n            >>> loss_fn(model(input), target).backward()\n            >>> optimizer.step(),\n\n        __ http://www.cs.toronto.edu/%7Ehinton/absps/momentum.pdf\n\n        .. note::\n            The implementation of SGD with Momentum/Nesterov subtly differs from\n            Sutskever et. al. and implementations in some other frameworks.\n\n            Considering the specific case of Momentum, the update can be written as\n\n            .. math::\n                      v = \\rho * v + g \\\\\n                      p = p - lr * v\n\n            where p, g, v and :math:`\\rho` denote the parameters, gradient,\n            velocity, and momentum respectively.\n\n            This is in contrast to Sutskever et. al. and\n            other frameworks which employ an update of the form\n\n            .. math::\n                 v = \\rho * v + lr * g \\\\\n                 p = p - v\n\n            The Nesterov version is analogously modified.\n        \"\"\"\n\n        super().__init__(optim.SGD,\n                         lr=lr,\n                         momentum=momentum,\n                         dampening=dampening,\n                         weight_decay=weight_decay,\n                         nesterov=nesterov)\n"
  },
  {
    "path": "xenonpy/model/training/trainer.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom collections import OrderedDict, namedtuple\nfrom copy import deepcopy\nfrom pathlib import Path\nfrom typing import Union, Tuple, List, Any, Dict, Callable\n\nimport numpy as np\nimport pandas as pd\nimport torch\nfrom torch.nn import Module\nfrom torch.optim.lr_scheduler import _LRScheduler, ReduceLROnPlateau\nfrom torch.utils.data import DataLoader\n\nfrom deprecated import deprecated\n\nfrom xenonpy.model.training import ClipValue, ClipNorm, Checker\nfrom xenonpy.model.training.base import BaseOptimizer, BaseLRScheduler, BaseRunner\nfrom xenonpy.utils import camel_to_snake\n\n__all__ = ['Trainer']\n\n\nclass Trainer(BaseRunner):\n    checkpoint_tuple = namedtuple('checkpoint', 'id iterations model_state')\n    results_tuple = namedtuple('results', 'total_epochs device training_info checkpoints model')\n\n    def __init__(\n        self,\n        *,\n        loss_func: torch.nn.Module = None,\n        optimizer: BaseOptimizer = None,\n        model: Module = None,\n        lr_scheduler: BaseLRScheduler = None,\n        clip_grad: Union[ClipNorm, ClipValue] = None,\n        epochs: int = 200,\n        cuda: Union[bool, str, torch.device] = False,\n        non_blocking: bool = False,\n    ):\n        \"\"\"\n        NN model trainer.\n\n        Parameters\n        ----------\n        loss_func\n            Loss function.\n        optimizer\n            Optimizer for model parameters tuning.\n        model\n            Pytorch NN model.\n        lr_scheduler\n            Learning rate scheduler.\n        clip_grad\n            Clip grad before each optimize.\n        epochs\n            Number of iterations.\n        cuda\n            Set training device(s).\n        non_blocking\n            When non_blocking is ``True``,\n            it tries to convert/move asynchronously with respect to the host if possible.\n        \"\"\"\n        super().__init__(cuda=cuda)\n        # None able\n        self._clip_grad = clip_grad\n        self._epochs = epochs\n        self._non_blocking = non_blocking\n\n        # loss function placeholder\n        self._loss_func = None\n        self._loss_type = None\n\n        # model placeholder\n        self._model = None\n        self._init_states = None\n\n        # optimizer placeholder\n        self._optim = None\n        self._optimizer = None\n        self._optimizer_state = None\n\n        # lr_scheduler placeholder\n        self._scheduler = None\n        self._lr_scheduler = None\n\n        # init private vars\n        self._early_stopping: Tuple[bool, str] = (False, '')\n        self._checkpoints: Dict[Union[int, str], Trainer.checkpoint_tuple] = OrderedDict()\n        self._training_info: List[OrderedDict] = []\n        self._total_its: int = 0  # of total iterations\n        self._total_epochs: int = 0  # of total epochs\n\n        self._x_val = None\n        self._y_val = None\n        self._validate_dataset = None\n\n        # init\n        self.model = model\n        self.optimizer = optimizer\n        self.lr_scheduler = lr_scheduler\n        self.loss_func = loss_func\n\n    @property\n    def epochs(self):\n        return self._epochs\n\n    @property\n    def non_blocking(self):\n        return self._non_blocking\n\n    @property\n    def loss_type(self):\n        return self._loss_type\n\n    @property\n    def total_epochs(self):\n        return self._total_epochs\n\n    @property\n    def total_iterations(self):\n        return self._total_its\n\n    @property\n    def x_val(self):\n        return self._x_val\n\n    @property\n    def y_val(self):\n        return self._y_val\n\n    @property\n    def validate_dataset(self):\n        return self._validate_dataset\n\n    @property\n    def loss_func(self):\n        return self._loss_func\n\n    @loss_func.setter\n    def loss_func(self, loss_func):\n        if loss_func is not None:\n            self._loss_func = loss_func\n            self._loss_type = 'train_' + camel_to_snake(loss_func.__class__.__name__)\n\n    @property\n    def training_info(self):\n        if len(self._training_info) > 0:\n            return pd.DataFrame(data=self._training_info)\n        return None\n\n    @property\n    def device(self):\n        return self._device\n\n    @device.setter\n    def device(self, v):\n        self._device = self.check_device(v)\n        self.model = None\n\n    @property\n    def model(self):\n        return self._model\n\n    @model.setter\n    def model(self, model):\n        if model is not None:\n            if isinstance(model, torch.nn.Module):\n                self.reset(to=model)\n            else:\n                raise TypeError('parameter `m` must be a instance of <torch.nn.modules> but got %s' % type(model))\n\n    @property\n    def optimizer(self):\n        return self._optimizer\n\n    @optimizer.setter\n    def optimizer(self, optimizer):\n        if optimizer is not None:\n            self._optim = optimizer\n\n        if self._optim is not None and self._model is not None:\n            self._optimizer = self._optim(self._model.parameters())\n            self._optimizer_state = deepcopy(self._optimizer.state_dict())\n\n            self.lr_scheduler = None\n\n    @property\n    def lr_scheduler(self):\n        return self._lr_scheduler\n\n    @lr_scheduler.setter\n    def lr_scheduler(self, scheduler):\n        if scheduler is not None:\n            self._scheduler = scheduler\n\n        if self._scheduler is not None and self._optimizer is not None:\n            self._lr_scheduler: Union[_LRScheduler, None] = self._scheduler(self._optimizer)\n\n    @property\n    def clip_grad(self):\n        return self._clip_grad\n\n    @clip_grad.setter\n    def clip_grad(self, fn):\n        self._clip_grad = fn\n\n    @property\n    def checkpoints(self):\n        return self._checkpoints\n\n    def get_checkpoint(self, checkpoint: Union[int, str] = None):\n        if checkpoint is None:\n            return list(self._checkpoints.keys())\n        if isinstance(checkpoint, int):\n            id_ = f'cp_{checkpoint}'\n            return self._checkpoints[id_]\n        if isinstance(checkpoint, str):\n            return self._checkpoints[checkpoint]\n        raise TypeError(f'parameter <cp> must be str or int but got {checkpoint.__class__}')\n\n    def set_checkpoint(self, id_: str = None):\n        if id_ is None:\n            id_ = f'cp_{self._total_its}'\n        cp = self.checkpoint_tuple(\n            id=id_,\n            iterations=self._total_its,\n            model_state=deepcopy(self._model.state_dict()),\n        )\n\n        self._checkpoints[id_] = cp\n        self._on_checkpoint(checkpoint=cp, trainer=self, is_training=True)\n\n    def early_stop(self, msg: str):\n        self._early_stopping = (True, msg)\n\n    def reset(self, *, to: Union[Module, int, str] = None, remove_checkpoints: bool = True):\n        \"\"\"\n        Reset trainer.\n        This will reset all trainer states and drop all training step information.\n\n        Parameters\n        ----------\n        to: Union[bool, Module]\n            Bind trainer to the given model or reset current model to it's initialization states.\n        remove_checkpoints\n            Set to ``True`` to remove all checkpoints when resetting. Default ``true``.\n        \"\"\"\n        self._training_info = []\n        self._total_its = 0\n        self._total_epochs = 0\n        self._early_stopping = (False, '')\n\n        if isinstance(to, Module):\n            self._model = to.to(self._device, non_blocking=self._non_blocking)\n            self._init_states = deepcopy(to.state_dict())\n\n            self.optimizer = None\n            self.lr_scheduler = None\n        elif isinstance(to, (int, str)):\n            cp = self.get_checkpoint(to)\n            self._model.load_state_dict(cp.model_state)\n        elif to is None:\n            self._model.load_state_dict(self._init_states)\n            self._optimizer.load_state_dict(self._optimizer_state)\n        else:\n            raise TypeError(f'parameter <to> must be torch.nnModule, int, or str but got {type(to)}')\n\n        if remove_checkpoints:\n            self._checkpoints = OrderedDict()\n\n        self._on_reset(trainer=self, is_training=True)\n\n    def fit(self,\n            x_train: Union[Any, Tuple[Any]] = None,\n            y_train: Any = None,\n            x_val: Union[Any, Tuple[Any]] = None,\n            y_val: Any = None,\n            *,\n            training_dataset: DataLoader = None,\n            validation_dataset: DataLoader = None,\n            epochs: int = None,\n            checkpoint: Union[bool, int, Callable[[int], Tuple[bool, str]]] = None,\n            progress_bar: Union[str, None] = 'auto',\n            **model_params):\n        \"\"\"\n        Train the Neural Network model\n\n        Parameters\n        ----------\n        x_train: Union[torch.Tensor, Tuple[torch.Tensor]]\n            Training data. Will be ignored will``training_dataset`` is given.\n        y_train: torch.Tensor\n            Test data. Will be ignored will``training_dataset`` is given.\n        training_dataset: DataLoader\n            Torch DataLoader. If given, will only use this as training dataset.\n            When loop over this dataset, it should yield a tuple contains ``x_train`` and ``y_train`` in order.\n        x_val : Union[Any, Tuple[Any]]\n            Data for validation.\n        y_val : Any\n            Data for validation.\n        validation_dataset: DataLoader\n        epochs : int\n            Epochs. If not ``None``, it will overwrite ``self.epochs`` temporarily.\n        checkpoint: Union[bool, int, Callable[[int], bool]]\n            If ``True``, will save model states at each step.\n            If ``int``, will save model states every `checkpoint` steps.\n            If ``Callable``, the function should take current ``total_epochs`` as input return ``bool``.\n        progress_bar\n            Show progress bar when for training steps. Can be 'auto', 'console', or ``None``.\n            See https://pypi.org/project/tqdm/#ipython-jupyter-integration for more details.\n        model_params: dict\n            Other model parameters.\n        \"\"\"\n        if epochs is None:\n            epochs = self._epochs\n\n        prob = self._total_epochs\n        if progress_bar is not None:\n            if progress_bar == 'auto':\n                from tqdm.auto import tqdm\n            else:\n                from tqdm import tqdm\n\n            with tqdm(total=epochs, desc='Training') as pbar:\n                for _ in self(x_train=x_train,\n                              y_train=y_train,\n                              x_val=x_val,\n                              y_val=y_val,\n                              training_dataset=training_dataset,\n                              validation_dataset=validation_dataset,\n                              epochs=epochs,\n                              checkpoint=checkpoint,\n                              **model_params):\n                    delta = self._total_epochs - prob\n                    if delta:\n                        prob = self._total_epochs\n                        pbar.update(delta)\n        else:\n            for _ in self(x_train=x_train,\n                          y_train=y_train,\n                          x_val=x_val,\n                          y_val=y_val,\n                          training_dataset=training_dataset,\n                          validation_dataset=validation_dataset,\n                          epochs=epochs,\n                          checkpoint=checkpoint,\n                          **model_params):\n                pass\n\n    def __call__(self,\n                 x_train: Union[torch.Tensor, Tuple[torch.Tensor]] = None,\n                 y_train: Any = None,\n                 x_val: Union[Any, Tuple[Any]] = None,\n                 y_val: Any = None,\n                 *,\n                 training_dataset: DataLoader = None,\n                 validation_dataset: DataLoader = None,\n                 epochs: int = None,\n                 checkpoint: Union[bool, int, Callable[[int], bool]] = None,\n                 **model_params):\n        \"\"\"\n        Train the Neural Network model\n\n        Parameters\n        ----------\n        x_train\n            Training data. Will be ignored will ``training_dataset`` is given.\n        y_train\n            Test data. Will be ignored will ``training_dataset`` is given.\n        training_dataset: DataLoader\n            Torch DataLoader. If given, will only use this as training dataset.\n            When loop over this dataset, it should yield a tuple contains ``x_train`` and ``y_train`` in order.\n        x_val : Union[Any, Tuple[Any]]\n            Data for validation.\n        y_val : Any\n            Data for validation.\n        validation_dataset : DataLoader\n        epochs : int\n            Epochs. If not ``None``, it will overwrite ``self.epochs`` temporarily.\n        checkpoint: Union[bool, int, Callable[[int], bool]]\n            If ``True``, will save model states at each step.\n            If ``int``, will save model states every `checkpoint` steps.\n            If ``Callable``, the function should take current ``total_epochs`` as input return ``bool``.\n        model_params: dict\n            Other model parameters.\n\n        Yields\n        ------\n        namedtuple\n\n        \"\"\"\n        if self._model is None:\n            raise RuntimeError(\n                'no model for training, use `trainer.model = <model>` or `trainer.reset(to=<model>)` to set one')\n        if self._loss_func is None:\n            raise RuntimeError('no loss function for training, use `trainer.loss_func = <loss_func>` to set one')\n        if self._optimizer is None:\n            raise RuntimeError('no optimizer for training, use `trainer.optimizer = <optimizer>` to set one')\n\n        if epochs is None:\n            epochs = self._epochs\n\n        if training_dataset is not None:\n            if y_train is not None or x_train is not None:\n                raise RuntimeError('parameter <training_dataset> is exclusive of <x_train> and <y_train>')\n        else:\n            if y_train is None or x_train is None:\n                raise RuntimeError('missing parameter <x_train> or <y_train>')\n\n        # training step\n        def _step(x_, y_, i_b=0):\n\n            def closure():\n                self._optimizer.zero_grad()\n                y_p_ = self._model(*x_, **model_params)\n                y_p_, y_t_ = self.output_proc(y_p_, y_, trainer=self, is_training=True)\n                loss_ = self._loss_func(y_p_, y_t_)\n                loss_.backward()\n\n                if self._clip_grad is not None:\n                    self._clip_grad(self._model.parameters())\n\n                return loss_\n\n            # make sure running in training mode\n            if not self._model.training:\n                self._model.train()\n\n            train_loss = self._optimizer.step(closure).item()\n\n            step_info = OrderedDict(\n                total_iters=self._total_its,\n                i_epoch=self._total_epochs,\n                i_batch=i_b + 1,\n            )\n            step_info[self._loss_type] = train_loss\n            self._total_its += 1\n            self._step_forward(step_info=step_info, trainer=self, is_training=True)\n            self._training_info.append(step_info)\n\n            if self._lr_scheduler is not None:\n                if isinstance(self._lr_scheduler, ReduceLROnPlateau):\n                    self._lr_scheduler.step(train_loss)\n                else:\n                    self._lr_scheduler.step()\n\n            return step_info\n\n        def _snapshot():\n            if checkpoint is not None:\n                if isinstance(checkpoint, bool) and checkpoint:\n                    self.set_checkpoint()\n                if isinstance(checkpoint, int):\n                    if self._total_epochs % checkpoint == 0:\n                        self.set_checkpoint()\n                if callable(checkpoint):\n                    flag, msg = checkpoint(self._total_epochs)\n                    if flag:\n                        self.set_checkpoint(msg)\n\n        if validation_dataset is not None:\n            if y_val is not None or x_val is not None:\n                raise RuntimeError('parameter <validation_dataset> is exclusive of <x_val> and <y_val>')\n            else:\n                self._validate_dataset = validation_dataset\n        else:\n            if y_val is not None and x_val is not None:\n                self._x_val, self._y_val = self.input_proc(x_val, y_val, trainer=self, is_training=False)\n\n        # before processing\n        self._before_proc(trainer=self, is_training=True)\n\n        if training_dataset:\n            for i_epoch in range(self._total_epochs, epochs + self._total_epochs):\n\n                self._total_epochs += 1\n                for i_batch, (x_train, y_train) in enumerate(training_dataset):\n                    x_train, y_train = self.input_proc(x_train, y_train, trainer=self, is_training=True)\n                    if not isinstance(x_train, tuple):\n                        x_train = (x_train,)\n                    yield _step(x_train, y_train, i_batch)\n                    if self._early_stopping[0]:\n                        print(f'Early stopping is applied: {self._early_stopping[1]}')\n                        self._after_proc(trainer=self, is_training=True)\n                        self._model.eval()\n                        return\n                _snapshot()\n\n        else:\n            x_train, y_train = self.input_proc(x_train, y_train, trainer=self, is_training=True)\n            if not isinstance(x_train, tuple):\n                x_train = (x_train,)\n\n            for i_epoch in range(self._total_epochs, epochs + self._total_epochs):\n\n                self._total_epochs += 1\n                yield _step(x_train, y_train)\n                if self._early_stopping[0]:\n                    print(f'Early stopping is applied: {self._early_stopping[1]}.')\n                    self._after_proc(trainer=self, is_training=True)\n                    self._model.eval()\n                    return\n                _snapshot()\n\n        # after processing\n        self._after_proc(trainer=self, is_training=True)\n        self._model.eval()\n\n    @classmethod\n    @deprecated(reason=\"will be removed in v1.0.0, please use `Trainer.from_checker` instead\")\n    def load(\n        cls,\n        from_: Union[str, Path, Checker],\n        *,\n        loss_func: torch.nn.Module = None,\n        optimizer: BaseOptimizer = None,\n        lr_scheduler: BaseLRScheduler = None,\n        clip_grad: Union[ClipNorm, ClipValue] = None,\n        epochs: int = 200,\n        cuda: Union[bool, str, torch.device] = False,\n        non_blocking: bool = False,\n    ) -> 'Trainer':\n        return cls.from_checker(from_,\n                                loss_func=loss_func,\n                                optimizer=optimizer,\n                                lr_scheduler=lr_scheduler,\n                                clip_grad=clip_grad,\n                                epochs=epochs,\n                                cuda=cuda,\n                                non_blocking=non_blocking)\n\n    @classmethod\n    def from_checker(\n        cls,\n        checker: Union[str, Path, Checker],\n        *,\n        loss_func: torch.nn.Module = None,\n        optimizer: BaseOptimizer = None,\n        lr_scheduler: BaseLRScheduler = None,\n        clip_grad: Union[ClipNorm, ClipValue] = None,\n        epochs: int = 200,\n        cuda: Union[bool, str, torch.device] = False,\n        non_blocking: bool = False,\n    ) -> 'Trainer':\n        \"\"\"\n        Load model for local path or :class:`xenonpy.model.training.Checker`.\n\n        Parameters\n        ----------\n        checker\n            Path to the model dir or :class:`xenonpy.model.training.Checker` object.\n        loss_func\n            Loss function.\n        optimizer\n            Optimizer for model parameters tuning.\n        lr_scheduler\n            Learning rate scheduler.\n        clip_grad\n            Clip grad before each optimize.\n        epochs\n            Number of iterations.\n        cuda\n            Set training device(s).\n        non_blocking\n            When non_blocking is ``True``,\n            it tries to convert/move asynchronously with respect to the host if possible.\n\n        Returns\n        -------\n\n        \"\"\"\n        if isinstance(checker, (str, Path)):\n            checker = Checker(checker)\n        else:\n            checker = checker\n        if len(checker.files) == 0:\n            raise RuntimeError(f'{checker.path} is not a model dir')\n\n        tmp = cls(model=checker.model,\n                  cuda=cuda,\n                  loss_func=loss_func,\n                  optimizer=optimizer,\n                  lr_scheduler=lr_scheduler,\n                  clip_grad=clip_grad,\n                  epochs=epochs,\n                  non_blocking=non_blocking)\n        tmp._training_info = checker.training_info.to_dict(orient='records')\n        if Path(checker.path + '/checkpoints').is_dir():\n            for k in checker.checkpoints.files:\n                tmp._checkpoints[k] = cls.checkpoint_tuple(**checker.checkpoints[k])\n        return tmp\n\n    def predict(self,\n                x_in: Union[Any, Tuple[Any]] = None,\n                y_true: Union[Any, Tuple[Any]] = None,\n                *,\n                dataset: DataLoader = None,\n                checkpoint: Union[int, str] = None,\n                **model_params) -> Union[Tuple[np.ndarray], np.ndarray]:\n        \"\"\"\n        Predict from x input.\n        This is just a simple wrapper for :meth:`~model.nn.utils.Predictor.predict`.\n\n        Parameters\n        ----------\n        x_in\n            Input data for prediction.\n        y_true\n            True values.\n        dataset\n            Pytorch :class:`torch.utils.data.DataLoader`.\n        checkpoint\n            Reset to checkpoint if given.\n        model_params: dict\n            Model parameters for prediction.\n\n        Returns\n        -------\n        ret\n            Predict results. If ``y_true`` is not ``None``, ``y_true`` will be returned in second.\n        \"\"\"\n\n        def _predict(x_, y_=None):\n            x_, y_ = self.input_proc(x_, y_, trainer=self, is_training=False)\n            if not isinstance(x_, tuple):\n                x_ = (x_,)\n\n            if checkpoint:\n                cp = self.get_checkpoint(checkpoint)\n                model = deepcopy(self._model).to(self.device)\n                model.load_state_dict(cp.model_state)\n                y_p_ = model(*x_, **model_params)\n            else:\n                y_p_ = self._model(*x_, **model_params)\n\n            return self.output_proc(y_p_, y_, trainer=self, is_training=False)\n\n        def _vstack(ls):\n            if isinstance(ls[0], np.ndarray):\n                return np.concatenate(ls)\n            if isinstance(ls[0], torch.Tensor):\n                return torch.cat(ls, dim=0)\n            return ls\n\n        # maker sure eval mode\n        self._model.eval()\n\n        if x_in is None and y_true is None and dataset is not None:\n            y_preds = []\n            y_trues = []\n            for x_in, y_true in dataset:\n                y_pred, y_true = _predict(x_in, y_true)\n                y_preds.append(y_pred)\n                y_trues.append(y_true)\n            return _vstack(y_preds), _vstack(y_trues)\n        elif x_in is not None and dataset is None:\n            y_preds, y_trues = _predict(x_in, y_true)\n            if y_trues is None:\n                return y_preds\n            return y_preds, y_trues\n        else:\n            raise RuntimeError('parameters <x_in> and <dataset> are mutually exclusive')\n\n    def to_namedtuple(self):\n        return self.results_tuple(total_epochs=self.total_epochs,\n                                  device=self.device,\n                                  training_info=self.training_info,\n                                  checkpoints={k: deepcopy(v.model_state) for k, v in self._checkpoints.items()},\n                                  model=deepcopy(self._model.cpu()))\n"
  },
  {
    "path": "xenonpy/model/utils/__init__.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom .metrics import *\n"
  },
  {
    "path": "xenonpy/model/utils/metrics.py",
    "content": "#  Copyright (c) 2021. TsumiNa. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom collections import OrderedDict\nfrom typing import Union, List, Tuple\n\nimport numpy as np\nimport pandas as pd\nfrom scipy.stats import pearsonr, spearmanr\nfrom sklearn.metrics import mean_absolute_error, r2_score, mean_squared_error, max_error\nfrom sklearn.metrics import f1_score, recall_score, precision_score, accuracy_score\n\n__all__ = ['regression_metrics', 'classification_metrics']\n\n\ndef regression_metrics(y_true: Union[np.ndarray, pd.Series], y_pred: Union[np.ndarray, pd.Series]) -> OrderedDict:\n    \"\"\"\n    Calculate most common regression scores.\n    See Also: https://scikit-learn.org/stable/modules/model_evaluation.html\n    \n    Parameters\n    ----------\n    y_true\n        True results.\n    y_pred\n        Predicted results.\n        \n    Returns\n    -------\n    OrderedDict\n        An :class:`collections.OrderedDict` contains regression scores.\n        These scores will be calculated: ``mae``, ``mse``, ``rmse``, ``r2``,\n        ``pearsonr``, ``spearmanr``, ``p_value``, and ``max_ae``\n    \"\"\"\n    if len(y_true.shape) != 1:\n        y_true = y_true.flatten()\n    if len(y_pred.shape) != 1:\n        y_pred = y_pred.flatten()\n\n    mask = ~np.isnan(y_pred)\n    y_true = y_true[mask]\n    y_pred = y_pred[mask]\n\n    mae = mean_absolute_error(y_true, y_pred)\n    maxae = max_error(y_true, y_pred)\n    mse = mean_squared_error(y_true, y_pred)\n    rmse = np.sqrt(mse)\n    r2 = r2_score(y_true, y_pred)\n    pr, p_val = pearsonr(y_true, y_pred)\n    sr, _ = spearmanr(y_true, y_pred)\n    return OrderedDict(\n        mae=mae,\n        mse=mse,\n        rmse=rmse,\n        r2=r2,\n        pearsonr=pr,\n        spearmanr=sr,\n        p_value=p_val,\n        max_ae=maxae,\n    )\n\n\ndef classification_metrics(\n    y_true: Union[np.ndarray, pd.DataFrame, pd.Series],\n    y_pred: Union[np.ndarray, pd.Series],\n    *,\n    average: Union[None, List[str], Tuple[str]] = ('weighted', 'micro', 'macro'),\n    labels=None,\n) -> dict:\n    \"\"\"\n    Calculate most common classification scores.\n    See also: https://scikit-learn.org/stable/modules/model_evaluation.html\n    \n    Parameters\n    ----------\n    y_true\n        True results.\n    y_pred\n        Predicted results.\n    average\n        This parameter is required for multiclass/multilabel targets. If None, the scores for each class are returned.\n        Otherwise, this determines the type of averaging performed on the data:\n\n        binary:\n            Only report results for the class specified by pos_label. This is applicable only if targets (y_{true,pred})\n            are binary.\n        micro:\n            Calculate metrics globally by counting the total true positives, false negatives and false positives.\n        macro:\n            Calculate metrics for each label, and find their unweighted mean. This does not take label imbalance into\n            account.\n        weighted:\n            Calculate metrics for each label, and find their average weighted by support (the number of true instances\n            for each label). This alters ``macro`` to account for label imbalance; it can result in an F-score that is\n            not between precision and recall.\n    labels\n        The set of labels to include when average != ``binary``, and their order if average is None.\n        Labels present in the data can be excluded, for example to calculate a multiclass average ignoring a majority\n        negative class, while labels not present in the data will result in 0 components in a macro average.\n        For multilabel targets, labels are column indices.\n        By default, all labels in y_true and y_pred are used in sorted order.\n\n    Returns\n    -------\n    OrderedDict\n        An :class:`collections.OrderedDict` contains classification scores.\n        These scores will always contains ``accuracy``, ``f1``, ``precision`` and ``recall``.\n        For multilabel targets, based on the selection of the ``average`` parameter, the **weighted**, **micro**,\n        and **macro** scores of ``f1`, ``precision``, and ``recall`` will be calculated.\n    \"\"\"\n    if average is not None and len(average) == 0:\n        raise ValueError('need average')\n\n    if len(y_true.shape) != 1:\n        y_true = np.argmax(y_true, 1)\n    if len(y_pred.shape) != 1:\n        y_pred = np.argmax(y_pred, 1)\n\n    mask = ~np.isnan(y_pred)\n    y_true = y_true[mask]\n    y_pred = y_pred[mask]\n\n    ret = dict(accuracy=accuracy_score(y_true, y_pred))\n\n    ret.update(\n        f1=f1_score(y_true, y_pred, average=None, labels=labels),\n        precision=precision_score(y_true, y_pred, average=None, labels=labels),\n        recall=recall_score(y_true, y_pred, average=None, labels=labels),\n    )\n\n    if 'binary' in average:\n        ret.update(\n            binary_f1=f1_score(y_true, y_pred, average='binary', labels=labels),\n            binary_precision=precision_score(y_true, y_pred, average='binary', labels=labels),\n            binary_recall=recall_score(y_true, y_pred, average='binary', labels=labels),\n        )\n\n    if 'micro' in average:\n        ret.update(\n            micro_f1=f1_score(y_true, y_pred, average='micro', labels=labels),\n            micro_precision=precision_score(y_true, y_pred, average='micro', labels=labels),\n            micro_recall=recall_score(y_true, y_pred, average='micro', labels=labels),\n        )\n\n    if 'macro' in average:\n        ret.update(\n            macro_f1=f1_score(y_true, y_pred, average='macro', labels=labels),\n            macro_precision=precision_score(y_true, y_pred, average='macro', labels=labels),\n            macro_recall=recall_score(y_true, y_pred, average='macro', labels=labels),\n        )\n        \n    if 'weighted' in average:\n        ret.update(\n            weighted_f1=f1_score(y_true, y_pred, average='weighted', labels=labels),\n            weighted_precision=precision_score(y_true, y_pred, average='weighted', labels=labels),\n            weighted_recall=recall_score(y_true, y_pred, average='weighted', labels=labels),\n        )\n\n    if 'samples' in average:\n        ret.update(\n            samples_f1=f1_score(y_true, y_pred, average='samples', labels=labels),\n            samples_precision=precision_score(y_true, y_pred, average='samples', labels=labels),\n            samples_recall=recall_score(y_true, y_pred, average='samples', labels=labels),\n        )\n\n    return ret\n"
  },
  {
    "path": "xenonpy/utils/__init__.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n\nfrom .parameter_gen import *\nfrom .useful_cls import *\nfrom .useful_func import *\n"
  },
  {
    "path": "xenonpy/utils/math/__init__.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom .product import Product\n"
  },
  {
    "path": "xenonpy/utils/math/product.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\n\nimport numpy as np\nfrom numpy import product\n\n\nclass Product(object):\n    def __init__(self, *paras, repeat=1):\n        if not isinstance(repeat, int):\n            raise ValueError('repeat must be int but got {}'.format(\n                type(repeat)))\n        lens = [len(p) for p in paras]\n        if repeat > 1:\n            lens = lens * repeat\n        size = product(lens)\n        acc_list = [np.floor_divide(size, lens[0])]\n        for len_ in lens[1:]:\n            acc_list.append(np.floor_divide(acc_list[-1], len_))\n\n        self.paras = paras * repeat if repeat > 1 else paras\n        self.lens = lens\n        self.size = size\n        self.acc_list = acc_list\n\n    def __getitem__(self, index):\n        if index > self.size - 1:\n            raise IndexError\n        ret = [s - 1 for s in self.lens]  # from len to index\n        remainder = index + 1\n        for i, acc in enumerate(self.acc_list):\n            quotient, remainder = np.divmod(remainder, acc)\n            if remainder == 0:\n                ret[i] = quotient - 1\n                break\n            ret[i] = quotient\n\n        return tuple(self.paras[i][j] for i, j in enumerate(ret))\n\n    def __len__(self):\n        return self.size\n"
  },
  {
    "path": "xenonpy/utils/parameter_gen.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom collections import OrderedDict\nfrom typing import Union, Dict, Callable, Sequence, Any, Optional\n\nimport numpy as np\nimport pandas as pd\n\n__all__ = ['ParameterGenerator']\n\n\nclass ParameterGenerator(object):\n    \"\"\"\n    Generator for parameter set generating.\n\n    \"\"\"\n\n    def __init__(self, seed: Optional[int] = None, **kwargs: Union[Any, Sequence, Callable, Dict]):\n        \"\"\"\n\n        Parameters\n        ----------\n        seed\n            Numpy random seed.\n        kwargs\n            Parameter candidate.\n        \"\"\"\n        if len(kwargs) == 0:\n            raise RuntimeError('need parameter candidate')\n\n        np.random.seed(seed)\n\n        self.tuples = OrderedDict()\n        self.funcs = OrderedDict()\n        self.dicts = OrderedDict()\n        self.others = {}\n\n        for k, v in kwargs.items():\n            if isinstance(v, (tuple, list, np.ndarray, pd.Series)):\n                self.tuples[k] = v\n            elif callable(v):\n                self.funcs[k] = v\n            elif isinstance(v, dict):\n                repeat = v['repeat']\n                self.dicts[k] = v\n\n                if isinstance(repeat, str):\n                    if repeat in self.tuples:\n                        self.tuples.move_to_end(repeat, True)\n                    if repeat in self.dicts:\n                        self.dicts.move_to_end(repeat, True)\n                    if repeat in self.funcs:\n                        self.funcs.move_to_end(repeat, True)\n            else:\n                self.others[k] = v\n\n    def __call__(self, num: int, *, factory=None):\n        for _ in range(num):\n            tmp = {}\n            for k, v in self.tuples.items():\n                tmp[k] = self._gen(v)\n\n            for k, v in self.funcs.items():\n                tmp[k] = v()\n\n            for k, v in reversed(self.dicts.items()):\n                data = v['data']\n                repeat = v['repeat']\n                if 'replace' in v:\n                    replace = v['replace']\n                else:\n                    replace = True\n\n                if isinstance(repeat, (tuple, list, np.ndarray, pd.Series)):\n                    repeat = self._gen(repeat)\n                elif isinstance(repeat, str):\n                    repeat = len(tmp[repeat])\n\n                if isinstance(data, (tuple, list, np.ndarray, pd.Series)):\n                    tmp[k] = self._gen(data, repeat, replace)\n                elif callable(data):\n                    tmp[k] = tuple(data(repeat))\n\n            tmp = dict(self.others, **tmp)\n            if factory is not None:\n                yield tmp, factory(**tmp)\n            else:\n                yield tmp\n\n    @staticmethod\n    def _gen(item: Sequence, repeat: int = None, replace: bool = True):\n        if repeat is not None:\n            idx = np.random.choice(len(item), repeat, replace=replace)\n            return tuple([item[i] for i in idx])\n        else:\n            idx = np.random.choice(len(item))\n            return item[idx]\n"
  },
  {
    "path": "xenonpy/utils/useful_cls.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport time\nimport types\nfrom collections import defaultdict\nfrom datetime import timedelta\nfrom functools import wraps\n\n__all__ = ['Switch', 'TimedMetaClass', 'Timer', 'Singleton']\n\n\nclass Switch(object):\n    def __init__(self, value):\n        self.value = value\n        self.fall = False\n\n    def __iter__(self):\n        \"\"\"Return the match method once, then stop\"\"\"\n        yield self.match\n        return\n\n    def match(self, *args):\n        \"\"\"Indicate whether or not to enter a case suite\"\"\"\n        if self.fall or not args:\n            return True\n        elif self.value in args:  # changed for v1.5, see below\n            self.fall = True\n            return True\n        else:\n            return False\n\n\nclass Timer(object):\n    class _Timer:\n        def __init__(self):\n            self.start = None\n            self.times = []\n\n        @property\n        def elapsed(self):\n            all_ = sum(self.times)\n            dt = 0.0\n            if self.start:\n                dt = time.perf_counter() - self.start\n            return all_ + dt\n\n        def __repr__(self):\n            return f'elapsed: {timedelta(seconds=self.elapsed)} <seconds>'\n\n    def __init__(self, time_func=time.perf_counter):\n        self._func = time_func\n        self._timers = defaultdict(self._Timer)\n\n    def start(self, fn_name='main'):\n        if self._timers[fn_name].start is not None:\n            raise RuntimeError('Timer <%s> Already started' % fn_name)\n        self._timers[fn_name].start = self._func()\n\n    def stop(self, fn_name='main'):\n        if self._timers[fn_name].start is None:\n            raise RuntimeError('Timer <%s> not started' % fn_name)\n        elapsed = self._func() - self._timers[fn_name].start\n        self._timers[fn_name].times.append(elapsed)\n        self._timers[fn_name].start = None\n\n    @property\n    def elapsed(self):\n        if 'main' in self._timers:\n            return self._timers['main'].elapsed\n        return sum([v.elapsed for v in self._timers.values()])\n\n    def __repr__(self):\n        tmp = {k: v.elapsed for k, v in self._timers.items()}\n        tmp = {k: v for k, v in sorted(tmp.items(), key=lambda t: t[1])}\n        return f'Total elapsed: {timedelta(seconds=self.elapsed)} <seconds>\\n' + \\\n               '\\n'.join([f'  |- {k}: {timedelta(seconds=v)}' for k, v in\n                          sorted(tmp.items(), key=lambda t: t[1], reverse=True)])\n\n    def __enter__(self):\n        self.start()\n        return self\n\n    def __exit__(self, *args):\n        self.stop()\n\n\nclass TimedMetaClass(type):\n    \"\"\"\n    This metaclass replaces each methods of its classes\n    with a new function that is timed\n    \"\"\"\n\n    @staticmethod\n    def _timed(fn):\n        if isinstance(fn, (types.FunctionType, types.MethodType)):\n            @wraps(fn)\n            def fn_(self, *args, **kwargs):\n                self._timer.start(fn.__name__)\n                try:\n                    rt = fn(self, *args, **kwargs)\n                finally:\n                    self._timer.stop(fn.__name__)\n                return rt\n\n            return fn_\n        raise TypeError('Need <FunctionType> or <MethodType> but got %s' % type(fn))\n\n    def __new__(mcs, name, bases, attrs):\n\n        if '__init__' in attrs:\n            real_init = attrs['__init__']\n\n            # we do a deepcopy in case default is mutable\n            # but beware, this might not always work\n            @wraps(real_init)\n            def injected_init(self, *args, **kwargs):\n                setattr(self, '_timer', Timer())\n                # call the \"real\" __init__ that we hid with our injected one\n                real_init(self, *args, **kwargs)\n        else:\n            def injected_init(self):\n                setattr(self, '_timer', Timer())\n        # inject it\n        attrs['__init__'] = injected_init\n\n        for name_, value_ in attrs.items():\n            if not name_.startswith(\"__\") and isinstance(value_, (types.FunctionType, types.MethodType)):\n                attrs[name_] = TimedMetaClass._timed(value_)\n        cls = super(TimedMetaClass, mcs).__new__(mcs, name, bases, attrs)\n        cls.timer = property(lambda self: self._timer)\n        return cls\n\n\nclass Singleton(type):\n    _instances = {}\n\n    def __call__(cls, *args, **kwargs):\n        if cls not in cls._instances:\n            cls._instances[cls] = super(Singleton, cls).__call__(*args, **kwargs)\n        return cls._instances[cls]\n"
  },
  {
    "path": "xenonpy/utils/useful_func.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport re\nfrom contextlib import contextmanager\nfrom os import getenv\nfrom pathlib import Path\n\nfrom ruamel.yaml import YAML\n\nfrom xenonpy._conf import __cfg_root__\nfrom xenonpy._conf import __github_username__, __db_version__\n\n__all__ = ['camel_to_snake', 'get_data_loc', 'get_dataset_url', 'get_sha256', 'absolute_path', 'set_env', 'config']\n\n\n@contextmanager\ndef set_env(**kwargs):\n    \"\"\"\n    Set temp environment variable with ``with`` statement.\n\n    Examples\n    --------\n    >>> import os\n    >>> with set_env(test='test env'):\n    >>>    print(os.getenv('test'))\n    test env\n    >>> print(os.getenv('test'))\n    None\n\n    Parameters\n    ----------\n    kwargs: dict[str]\n        Dict with string value.\n    \"\"\"\n    import os\n\n    tmp = dict()\n    for k, v in kwargs.items():\n        tmp[k] = os.getenv(k)\n        os.environ[k] = v\n    yield\n    for k, v in tmp.items():\n        if not v:\n            del os.environ[k]\n        else:\n            os.environ[k] = v\n\n\ndef config(key=None, **key_vals):\n    \"\"\"\n    Return config value with key or all config.\n\n    Parameters\n    ----------\n    key: str\n        Keys of config item.\n    key_vals: dict\n        Set item's value by key.\n    Returns\n    -------\n    str\n        The value corresponding to the key.\n    \"\"\"\n    yaml = YAML(typ='safe')\n    yaml.indent(mapping=2, sequence=4, offset=2)\n    dir_ = Path(__cfg_root__)\n    cfg_file = dir_ / 'conf.yml'\n\n    # from user local\n    with open(str(cfg_file), 'r') as f:\n        conf = yaml.load(f)\n\n    value = None\n\n    # getter\n    if key:\n        if key in conf:\n            value = conf[key]\n        else:\n            tmp = Path(__file__).parents[1] / 'conf.yml'\n            with open(str(tmp)) as f:\n                conf_ = yaml.load(f)\n\n            if key not in conf_:\n                raise RuntimeError('No item(s) named %s in configurations' % key)\n\n            value = conf_[key]\n\n    # setter\n    if key_vals:\n        for key, v in key_vals.items():\n            conf[key] = v\n        with open(str(cfg_file), 'w') as f:\n            yaml.dump(conf, f)\n\n    return value\n\n\ndef camel_to_snake(text):\n    str1 = re.sub('(.)([A-Z][a-z]+)', r'\\1_\\2', text)\n    return re.sub('([a-z0-9])([A-Z])', r'\\1_\\2', str1).lower()\n\n\ndef get_dataset_url(name, version=__db_version__):\n    \"\"\"\n    Return url with the given file name.\n\n    Args\n    ----\n    name: str\n        binary file name.\n    version: str\n        The version of repository.\n        See Also: https://github.com/yoshida-lab/dataset/releases\n\n    Return\n    ------\n    str\n        binary file url.\n    \"\"\"\n    return 'https://github.com/{0}/dataset/releases/download/v{1}/{2}.pd.xz'.format(__github_username__, version,\n                                                                                    name)\n\n\ndef get_data_loc(name):\n    \"\"\"Return user data location\"\"\"\n\n    scheme = ('userdata', 'usermodel')\n    if name not in scheme:\n        raise ValueError('{} not in {}'.format(name, scheme))\n    if getenv(name):\n        return str(Path(getenv(name)).expanduser())\n    return str(Path(config(name)).expanduser())\n\n\ndef absolute_path(path, ignore_err=True):\n    \"\"\"\n    Resolve path when path include ``~``, ``parent/here``.\n\n    Parameters\n    ----------\n    path: str\n        Path to expand.\n    ignore_err: bool\n        FileNotFoundError is raised when set to False.\n        When True, the path will be created.\n    Returns\n    -------\n    str\n        Expanded path.\n    \"\"\"\n    from sys import version_info\n\n    if isinstance(path, str):\n        path = Path(path)\n\n    if version_info[1] == 5:\n        if ignore_err:\n            path.expanduser().mkdir(parents=True, exist_ok=True)\n        return str(path.expanduser().resolve())\n    return str(path.expanduser().resolve(not ignore_err))\n\n\ndef get_sha256(fname):\n    \"\"\"\n    Calculate file's sha256 value\n\n    Parameters\n    ----------\n    fname: str\n        File name.\n\n    Returns\n    -------\n    str\n        sha256 value.\n    \"\"\"\n    from hashlib import sha256\n    hasher = sha256()\n    with open(fname, \"rb\") as f:\n        for chunk in iter(lambda: f.read(65536), b\"\"):\n            hasher.update(chunk)\n    return hasher.hexdigest()\n"
  },
  {
    "path": "xenonpy/visualization/__init__.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nfrom .heatmap import DescriptorHeatmap\n"
  },
  {
    "path": "xenonpy/visualization/heatmap.py",
    "content": "#  Copyright (c) 2021. yoshida-lab. All rights reserved.\n#  Use of this source code is governed by a BSD-style\n#  license that can be found in the LICENSE file.\n\nimport matplotlib.pyplot as plt\nimport numpy as np\nimport pandas as pd\nimport seaborn as sb\nfrom typing import Sequence, Union\n\nfrom xenonpy.datatools import Scaler\n\nfrom sklearn.preprocessing import power_transform\nfrom sklearn.base import BaseEstimator\nfrom sklearn.preprocessing import minmax_scale\n\n\nclass DescriptorHeatmap(BaseEstimator):\n    \"\"\"\n    Heatmap.\n    \"\"\"\n\n    def __init__(self,\n                 save=None,\n                 bc=False,\n                 cmap='RdBu',\n                 pivot_kws=None,\n                 method='average',\n                 metric='euclidean',\n                 figsize=None,\n                 row_cluster=False,\n                 col_cluster=True,\n                 row_linkage=None,\n                 col_linkage=None,\n                 row_colors=None,\n                 col_colors=None,\n                 mask=None,\n                 **kwargs):\n        \"\"\"\n\n        Parameters\n        ----------\n        save\n        bc\n        pivot_kws\n        method\n        metric\n        figsize\n        row_cluster\n        col_cluster\n        row_linkage\n        col_linkage\n        row_colors\n        col_colors\n        mask\n        kwargs\n        \"\"\"\n        self.cmap = cmap\n        self.save = save\n        self.bc = bc\n        self.pivot_kws = pivot_kws\n        self.method = method\n        self.metric = metric\n        self.figsize = figsize\n        self.col_cluster = col_cluster\n        self.row_linkage = row_linkage\n        self.row_cluster = row_cluster\n        self.col_linkage = col_linkage\n        self.row_colors = row_colors\n        self.col_colors = col_colors\n        self.mask = mask\n        self.kwargs = kwargs\n        self.desc = None\n\n    def fit(self, desc):\n        scaler = Scaler().min_max()\n        if self.bc:\n            scaler = scaler.yeo_johnson()\n\n        self.desc = scaler.fit_transform(desc)\n        return self\n\n    def draw(self,\n             y: Union[Sequence, pd.Series, None] = None,\n             name: str = None,\n             *,\n             return_sorted_idx: bool = False):\n        \"\"\"\n        Draw figure.\n\n        Parameters\n        ----------\n        y\n            Properties values corresponding to samples.\n        name\n            Property name. If ``name`` is ``None`` and ``y`` is not a ``pandas.Series``.\n            No name will be draw in the figure.\n        return_sorted_idx\n            If ``True``, return sorted column index of descriptor.\n            Default ``False``\n\n        Returns\n        -------\n        idx: np.array\n            sorted column index if ``return_sorted_idx`` is ``True``\n\n        \"\"\"\n        heatmap_ax = sb.clustermap(self.desc,\n                                   cmap=self.cmap,\n                                   method=self.method,\n                                   figsize=self.figsize,\n                                   row_cluster=self.row_cluster,\n                                   col_cluster=self.col_cluster,\n                                   **self.kwargs)\n        heatmap_ax.cax.set_visible(False)\n        heatmap_ax.ax_heatmap.yaxis.set_ticks_position('left')\n        heatmap_ax.ax_heatmap.yaxis.set_label_position('left')\n\n        if y is None:\n            heatmap_ax.ax_col_dendrogram.set_position((0.1, 0.8, 0.9, 0.1))\n            heatmap_ax.ax_heatmap.set_position((0.1, 0.2, 0.9, 0.6))\n        else:\n            heatmap_ax.ax_col_dendrogram.set_position((0.1, 0.8, 0.83, 0.1))\n            heatmap_ax.ax_heatmap.set_position((0.1, 0.2, 0.84, 0.6))\n            prop_ax = plt.axes([0.95, 0.2, 0.05, 0.6])\n\n            # draw prop\n            if isinstance(y, pd.Series):\n                x_ = y.values\n                name_ = y.name\n            else:\n                x_ = np.asarray(y)\n                name_ = ''\n            if name is not None:\n                name_ = name\n            y_ = np.arange(len(x_))[::-1]\n\n            prop_ax.plot(x_, y_, lw=4)\n            prop_ax.get_yaxis().set_visible(False)\n            prop_ax.spines['top'].set_visible(False)\n            prop_ax.spines['right'].set_visible(False)\n            prop_ax.set_xlabel('{:s}'.format(name_), fontsize='large')\n\n        if self.save:\n            plt.savefig(**self.save)\n\n        if return_sorted_idx:\n            try:\n                return heatmap_ax.dendrogram_col.reordered_ind\n            except AttributeError:\n                return np.arange(heatmap_ax.data2d.shape[1])\n"
  }
]